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| SWIS2050(2R) (583) |
| Quick Links: | A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z |
| Top | (All) Variables (587 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #1 C | 1 customer (customer) = 1 Present In 2 Views:Used By
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SWIS2050(2R) | #2 C | 1 hour (Hour) = 1 Present In 5 Views:
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SWIS2050(2R) | #3 C | 1 system (system) = 1 Present In 3 Views:Used By
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SWIS2050(2R) | #4 C | 1 system/ customer (system/customer) = 1 Present In 4 Views:Used By
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SWIS2050(2R) | #5 C | 1 year (year) = 1 Present In 5 Views:
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SWIS2050(2R) | #6 A | 2030 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #7 A | 2030 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, LS solar hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #8 A | 2030 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #9 A | 2030 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wind hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #10 A | 2050 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #11 C | 2050 Biogas costs per MWh* ($/(MW*Hour)) = 65.91 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #12 C | 2050 comm FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2228 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #13 A | 2050 energy intensity (GWh/(year*$m)) = Initial energy intensity*Energy intensity multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #14 A | 2050 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, LS solar hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #15 C | 2050 LSS costs per MWh* ($/(MW*Hour)) = 59.56 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #16 C | 2050 residential FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2742 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #17 A | 2050 unit cost of coal fuel ($/GJ) = Initial coal fuel cost*Coal cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #18 A | 2050 unit cost of gas fuel ($/GJ) = Initial gas fuel cost*Gas cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #19 C | 2050 unit cost of residential solar PV ($/kW) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #20 C | 2050 unit cost of residential storage ($/kWh) = 200 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #21 A | 2050 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #22 C | 2050 Wave costs per MWh* ($/(MW*Hour)) = 114.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #23 A | 2050 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wind hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #24 C | 2050 Wind costs per MWh* ($/(MW*Hour)) = 77.43 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #25 A | A-Ave/LSS (Dmnl) = Average 2050 renewables costs per MWh/"2050 LSS costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #26 F,A | Additive annual emissions (tCO2e) = IF THEN ELSE(Hour of the year=0,Annual emissions , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #27 A | Addtional comm storage savings ($/(customer*year)) = max(Commercial storage savings-Annual comm PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #28 A | Addtional resi storage savings ($/(customer*year)) = max(Residential storage savings-Annual resi PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #29 A | Addtl Gas CT reqd (MW) = IF THEN ELSE(Hourly demand balance>1, Hourly demand balance,0) Present In 1 View:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #30 A | Annual biogas costs ($) = Annual biogas generation*Biogas hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 12 [29,30] (-) 10 [29,30] |
SWIS2050(2R) | #31 A | Annual biogas generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative biogas generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #32 A | Annual coal costs ($) = Annual coal generation*Coal hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,286 (7.8%) (+) 546 [22,30] (-) 546 [22,30] (?) 194 [26,30] |
SWIS2050(2R) | #33 A | Annual coal emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #34 A | Annual coal generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum coal generation , 0) Present In 2 Views:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #35 A | Annual comm customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #36 A | Annual comm PV exports (kWh/(customer*year)) = Annual comm PV generation-(Annual demand per comm customer/"GW/kW")+Annual comm PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #37 A | Annual comm PV generation (kWh/(customer*year)) = Commercial SCM*Ave hourly commercial demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #38 A | Annual comm PV imports (kWh/customer/year) = Ave hourly commercial demand*Hours per year*365/12*Comm import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #39 A | Annual comm PV savings ($/customer/year) = (((Annual demand per comm customer/"GW/kW")-Annual comm PV imports)*Commercial tariff)+(Annual comm PV exports*Commercial FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #40 A | Annual commercial customer demand (GWh/year) = Industry energy demand-Annual large customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #41 A | Annual commercial PV generation (MW*Hour/year) = Commercial PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #42 A | Annual demand balance (Hour*MW) = Net annual network demand-Annual network generation plus storage discharges Present In 1 View:Used By |
SWIS2050(2R) | #43 A | Annual demand balance ratio (Dmnl) = XIDZ( Net annual network demand,Annual network generation,1) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #44 A | Annual demand met by network renewables (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by network renewables , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #45 A | Annual demand per comm customer (GWh/(year*customer)) = Annual commercial customer demand/Commercial customers Present In 3 Views:Used By
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SWIS2050(2R) | #46 C | Annual demand per large customer (GWh/customer/year) = 316.56 Present In 2 Views:Used By
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SWIS2050(2R) | #47 A | Annual emissions (tCO2e) = Annual coal emissions+Annual gas CC emissions+Annual gas CT emissions Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #48 A | Annual gas CC costs ($) = Annual gas CC generation*Gas CC hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 2,190 (13.3%) (+) 934 [22,30] (-) 930 [22,30] (?) 326 [26,30] |
SWIS2050(2R) | #49 A | Annual gas CC emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #50 A | Annual gas CC generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum gas CC generation , 0) Present In 2 Views:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #51 A | Annual gas CT costs ($) = Annual gas CT generation*Gas CT hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,914 (11.7%) (+) 824 [22,30] (-) 820 [22,30] (?) 270 [26,30] |
SWIS2050(2R) | #52 A | Annual gas CT emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CT emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #53 A | Annual gas CT generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum CT generation , 0) Present In 2 Views:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #54 A | Annual generation curtailed (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative generation curtailed , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #55 A | Annual large customer demand (GWh/year) = Annual demand per large customer*Large customers Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #56 A | Annual large customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #57 A | Annual LS solar costs ($) = Annual LS solar generation*LS solar hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #58 A | Annual LS solar generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative LS solar generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #59 A | Annual network generation (MW*Hour) = Annual network renewables generation+Annual network thermal generation Present In 2 Views:Used ByFeedback Loops: 7,826 (47.6%) (+) 2,523 [10,30] (-) 2,586 [14,30] (?) 2,717 [10,30] |
SWIS2050(2R) | #60 A | Annual network generation and storage costs ($) = Annual network generation costs+Annual network storage costs Present In 1 View:Used ByFeedback Loops: 7,114 (43.3%) (+) 2,920 [21,30] (-) 2,934 [21,30] (?) 1,260 [25,30] |
SWIS2050(2R) | #61 A | Annual network generation costs ($) = Annual network renewables costs+Annual thermal network costs Present In 1 View:Used ByFeedback Loops: 5,478 (33.3%) (+) 2,316 [22,30] (-) 2,306 [22,30] (?) 856 [26,30] |
SWIS2050(2R) | #62 A | Annual network generation plus storage discharges (Hour*MW) = Annual network thermal generation+Annual demand met by network renewables+Annual network storage discharge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #63 A | Annual network load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #64 A | Annual network renewables costs ($) = Annual LS solar costs+Annual wave costs+Annual wind costs+Annual biogas costs Present In 1 View:Used ByFeedback Loops: 88 (0.5%) (+) 12 [29,30] (-) 10 [29,30] (?) 66 [29,30] |
SWIS2050(2R) | #65 A | Annual network renewables generation (MW*Hour) = Annual LS solar generation+Annual wave generation+Annual wind generation+Annual biogas generation Present In 2 Views:Used ByFeedback Loops: 1,384 (8.4%) (+) 114 [10,30] (-) 127 [20,30] (?) 1,143 [10,30] |
SWIS2050(2R) | #66 A | Annual network storage costs ($) = (Annual PHES costs+Annual USBS costs)*"1 year" Present In 1 View:Used ByFeedback Loops: 1,636 (10.0%) (+) 604 [21,30] (-) 628 [21,30] (?) 404 [25,30] |
SWIS2050(2R) | #67 A | Annual network storage discharge (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage discharge , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #68 A | Annual network storage losses (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage losses , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #69 A | Annual network thermal generation (MW*Hour) = Annual coal generation+Annual gas CC generation+Annual gas CT generation Present In 3 Views:Used ByFeedback Loops: 7,194 (43.8%) (+) 2,496 [15,30] (-) 2,560 [14,30] (?) 2,138 [14,30] |
SWIS2050(2R) | #70 A | Annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network thermal load , 0) Present In 2 Views:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #71 A | Annual PHES costs ($/year) = PHES capacity*PHES hourly costs per MWh*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #72 A | Annual private PV generation (Hour*MW) = SAMPLE IF TRUE(Hour of the year=287, Total private PV generation*"1 year" , 0) Present In 2 Views:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #73 A | Annual resi PV exports (kWh/(customer*year)) = Annual resi PV generation-Ave annual residential demand per customer+Annual resi PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #74 A | Annual resi PV generation (kWh/(customer*year)) = Residential SCM*Ave hourly residential demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #75 A | Annual resi PV imports (kWh/customer/year) = Ave hourly residential demand*Hours per year*365/12*Resi PV import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #76 A | Annual resi PV savings ($/customer/year) = ((Ave annual residential demand per customer-Annual resi PV imports)*Residential tariff)+(Annual resi PV exports*Residential FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #77 A | Annual residential customer demand (GWh/year) = Residential customers*Ave annual residential demand per customer*"GW/kW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #78 C | Annual residential demand growth fraction (1/year) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #79 C | Annual residential growth fraction (1/year) = 0.02 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #80 A | Annual residential PV generation (MW*Hour/year) = Residential PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #81 A | Annual thermal network costs ($) = Annual coal costs+Annual gas CC costs+Annual gas CT costs Present In 1 View:Used ByFeedback Loops: 5,390 (32.8%) (+) 2,304 [22,30] (-) 2,296 [22,30] (?) 790 [26,30] |
SWIS2050(2R) | #82 A | Annual thermal network undergeneration (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum thermal network undergeneration , 0) Present In 1 View:Used By |
SWIS2050(2R) | #83 A | Annual total demand met by customers (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by customers , 0) Present In 2 Views:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #84 A | Annual USBS costs ($/year) = SAMPLE IF TRUE(Hour of the year=0, Network battery storage capacity*Utility scale battery storage hourly costs per MWh*Hours per year*365/12,0) Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #85 A | Annual wave costs ($) = Annual wave generation*Wave hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #86 A | Annual wave generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wave generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #87 A | Annual wind costs ($) = Annual wind generation*Wind hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #88 A | Annual wind generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wind generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #89 L | Ave annual residential demand per customer (kWh/customer/year) = ∫Chgs in demand per customer dt + 5680.0 Present In 4 Views:Used By
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SWIS2050(2R) | #90 L | Ave comm PV array (kW/system) = ∫Chg in ave comm PV array dt + 99.626 Present In 3 Views:Used By
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SWIS2050(2R) | #91 A | Ave hourly commercial demand (kWh/(Hour*customer)) = Annual demand per comm customer/Hours per year/(365/12)/"GW/kW" Present In 4 Views:Used By
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SWIS2050(2R) | #92 A | Ave hourly large customer demand (kWh/(Hour*customer)) = Annual demand per large customer/Hours per year/(365/12)/"GW/kW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #93 A | Ave hourly residential demand (kWh/(Hour*customer)) = Ave annual residential demand per customer/Hours per year/(365/12) Present In 5 Views:Used By
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SWIS2050(2R) | #94 L | Ave resi PV array (kW/system) = ∫Chg in ave resi PV array dt + 2.9 Present In 3 Views:Used By
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SWIS2050(2R) | #95 A | Average 2050 renewables costs per MWh ($/(MW*Hour)) = ("2050 Biogas costs per MWh*"+"2050 LSS costs per MWh*"+"2050 Wave costs per MWh*"+"2050 Wind costs per MWh*") Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #96 A | B-Ave/Wind (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wind costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #97 C | Battery storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #98 F,A | Biogas additions (MW/Hour) = Biogas replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #99 L | Biogas capacity (MW) = ∫Biogas additions-Biogas retirements dt + 21.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 400 [10,30] (-) 404 [2,30] (?) 210 [24,30] |
SWIS2050(2R) | #100 C | Biogas capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #101 C | Biogas capex ($/MW) = 3e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #102 C | Biogas CF (Dmnl) = 0.8 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #103 C | Biogas FOM ($/MW/year) = 150000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #104 A | Biogas generation (MW) = Biogas capacity*Biogas CF Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 400 [10,30] (-) 403 [14,30] (?) 210 [24,30] |
SWIS2050(2R) | #105 A | Biogas hourly capex ($/MW/Hour) = Biogas capex*Biogas PMT/(Hours per year*365/12)/Biogas CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #106 A | Biogas hourly costs per MWh ($/(MW*Hour)) = Biogas hourly capex+Biogas VOM+(Biogas FOM/Biogas CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #107 A | Biogas hourly operating costs ($/Hour) = Biogas capacity*Biogas hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #108 C | Biogas life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #109 C | Biogas PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #110 A | Biogas replacements (MW/Hour) = Total retired thermal generation*Biogas share by cost/Biogas CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #111 F,A | Biogas retirements (MW/Hour) = (Biogas capacity-(Biogas capacity*Renewables adjustments))/(Biogas capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 213 [10,30] (-) 225 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #112 C | Biogas share (Dmnl) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #113 A | Biogas share by cost (Dmnl) = "D-Ave/Bio"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #114 C | Biogas VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #115 A | C-Ave/Wave (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wave costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #116 C | Calendar year (year ) = TIME BASE (2015,0.00347222) Description: 2015 means the 2015/16 year as in the 2017 ESOO for the WEM Present In 2 Views:Used By
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SWIS2050(2R) | #117 F,A | Chg in ave comm PV array (kW/system/Hour) = (Indicated comm PV array-Ave comm PV array)/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #118 F,A | Chg in ave resi PV array (kW/system/Hour) = (Indicated resi PV array-Ave resi PV array)/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #119 F,A | Chg in coal fuel cost ($/GJ/Hour) = ("2050 unit cost of coal fuel"-Coal fuel unit cost)/(Coal fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #120 F,A | Chg in comm FIT fraction (1/Hour) = ("2050 comm FIT fraction"-Commercial FIT fraction)/Comm FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #121 F,A | Chg in comm storage systems (Systems/Hour) = (Commercial PV systems-Commercial storage systems)*Comm storage penetration/(Comm PV purchase adj time*Hours per year)*Comm storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #122 F,A | Chg in commercial customers (Customers/Hour) = Commercial customers*Annual comm customer growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #123 F,A | Chg in commercial PV systems (Systems/Hour) = (Max comm PV systems-Commercial PV systems)*Comm PV additions/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 1,754 (10.7%) (+) 846 [20,30] (-) 857 [2,30] (?) 51 [27,30] |
SWIS2050(2R) | #124 F,A | Chg in gas fuel cost ($/(Hour*GJ)) = ("2050 unit cost of gas fuel"-Gas fuel unit cost)/(Gas fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #125 F,A | Chg in large customers (Customers/Hour) = Large customers*Annual large customer growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #126 F,A | Chg in network storage capacity (MW) = IF THEN ELSE(Network storage SoC>Network storage capacity, Network storage SoC/"1 hour", 0) Present In 1 View:Used ByFeedback Loops: 5,540 (33.7%) (+) 2,020 [2,30] (-) 2,060 [3,30] (?) 1,460 [19,30] |
SWIS2050(2R) | #127 F,A | Chg in resi FIT fraction (1/Hour) = ("2050 residential FIT fraction"-Residential FIT fraction)/Resi FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #128 F,A | Chg in resi solar PV systems (Systems/Hour) = (Max resi PV systems-Residential PV systems)*Resi PV additions/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used By
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SWIS2050(2R) | #129 F,A | Chg in resi storage systems (Systems/Hour) = (Residential PV systems-Residential storage systems)*Resi storage penetration/(Resi PV purchase adj time*Hours per year)*Resi storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #130 F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) = ("2050 unit cost of residential solar PV"-Unit cost of residential solar PV)/Resi solar adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #131 F,A | Chg in unit cost of resi storage ($/kWh/Hour) = ("2050 unit cost of residential storage"-Unit cost of residential storage)/Resi solar adjustment time Present In 1 View:Used By
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SWIS2050(2R) | #132 F,A | Chg in wave capex ($/(MW*Hour)) = (Wave capex 2050-Wave capex)/(Wave capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #133 F,A | Chg in wind capex ($/MW/Hour) = (Onshore wind capex 2050-Wind capex)/(Wind capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #134 F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) = Ave annual residential demand per customer*Annual residential demand growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #135 F,A | Chgs to energy intensity (GWh/$m/year/Hour) = ("2050 energy intensity"-Energy intensity)/EI adjustment period/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #136 F,A | Chgs to GSP ($m/Hour) = GSP*GSP annual growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #137 A | Coal % (Dmnl) = ZIDZ( Coal generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #138 F,A | Coal additions (MW/Hour) = ((Coal capacity*Required thermal network additions)-Coal capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,372 (8.4%) (+) 275 [6,30] (-) 284 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #139 A | Coal available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=4:OR:MODULO( Month of the year, 12)=8,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #140 L | Coal capacity (MW) = ∫Coal additions-Coal retirement dt + Initial coal capacity Present In 2 Views:Used By
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SWIS2050(2R) | #141 C | Coal capex ($/MW) = 2.88e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #142 C | Coal cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #143 F,A | Coal emission out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #144 F,A | Coal emissions in (tCO2e) = Hourly coal emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #145 C | Coal emissions per MWh (tCO2e/MW) = 0.743 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #146 C | Coal FOM ($/MW/year) = 50500 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #147 C | Coal fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #148 A | Coal fuel costs ($/(MW*Hour)) = Coal fuel unit cost*"GJ/MWh"/Coal TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #149 L | Coal fuel unit cost ($/GJ) = ∫Chg in coal fuel cost dt + Initial coal fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #150 A | Coal generation (MW) = IF THEN ELSE(Network thermal load<Min coal generation capacity, 0 , IF THEN ELSE(Network thermal load<Max coal generation capacity, Network thermal load*Coal available hours , Max coal generation capacity*Coal available hours) ) Present In 2 Views:Used By
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SWIS2050(2R) | #151 A | Coal hourly capex ($/(MW*Hour)) = (Coal capex*Coal PMT)/(Hours per year*365/12)/Coal operating CF Present In 1 View:Used ByFeedback Loops: 304 (1.9%) (+) 128 [24,30] (-) 132 [24,30] (?) 44 [28,30] |
SWIS2050(2R) | #152 A | Coal hourly costs per MWh ($/(MW*Hour)) = Coal hourly capex+(Coal FOM/Coal operating CF/(Hours per year*365/12))+Coal VOM+Coal fuel costs Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #153 A | Coal hourly operating costs ($/Hour) = Coal capacity*Coal hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #154 A | Coal operating CF (Dmnl) = XIDZ( Cumulative coal operating hours,Time,(Nominal Coal CF)) Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #155 F,A | Coal operating hours (Dmnl) = Coal generation/Coal capacity Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #156 C | Coal phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #157 C | Coal PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #159 A | Coal retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Coal phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #160 C | Coal TE (Dmnl) = 0.415 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #161 C | Coal VOM ($/(MW*Hour)) = 4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #162 A,T | Comm demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Load profiles' , 'r' , 'ai5' ) _DOC_GRAPH_/plot_9.png)
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #163 C | Comm FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #164 A | Comm import fraction (Dmnl) = "GF-comm PV"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #165 A | Comm PV additions (Dmnl) = "GF-solar PV penetration"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #166 C | Comm PV purchase adj time (year) = 2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #167 A | Comm solar exports (kW) = Excess comm generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #168 A | Comm solar imports (kW) = Comm storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #169 A,T | Comm solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Solar resource' , 'a' , 'ao5' ) _DOC_GRAPH_/plot_12.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #170 C | Comm solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #171 A | Comm storage capacity per system (Hour*kW) = Ave comm PV array*Optimum comm storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #172 A | Comm storage capex ($/customer) = Commercial SCM*Ave hourly commercial demand*Optimum comm storage hours*Unit cost of comm battery storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #173 F,A | Comm storage charge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")+Excess comm generation<=(Comm storage capacity per system/"1 hour"), Excess comm generation , (Comm storage capacity per system-Comm storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #174 A | Comm storage demand (kW) = IF THEN ELSE(Net comm PV production<=0, -Net comm PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #175 F,A | Comm storage discharge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")-Comm storage demand>=Minimum private storage discharge*(Comm storage capacity per system/"1 hour"), Comm storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #176 A | Comm storage export fraction (Dmnl) = "GF- comm storage exports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #177 A | Comm storage exports (kW) = Excess comm generation-Comm storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #178 A | Comm storage import fraction (Dmnl) = "GF- comm storage imports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #179 A | Comm storage imports (kW) = Comm storage demand-Comm storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #180 F,A | Comm storage losses (kW) = Comm storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #181 A | Comm storage penetration (Dmnl) = "GF-solar PV penetration"(Commercial storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #182 L | Comm storage per system (kW*Hours) = ∫(Comm storage charge-Comm storage discharge)-Comm storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 702 (4.3%) (+) 262 [3,30] (-) 269 [2,30] (?) 171 [27,30] |
SWIS2050(2R) | #183 C | Comm storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #184 L | Commercial customers (Customers) = ∫Chg in commercial customers dt + 75000.0 Description: Based on ERA figure of 1.035m SWIS customers less 960,000 resi customers in ESO methodology report Present In 3 Views:Used By
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SWIS2050(2R) | #185 A | Commercial demand met by solar PV (kW) = min(Commercial solar generation,Commercial hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #186 A | Commercial FIT ($/kWh) = Commercial tariff*Commercial FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #187 L | Commercial FIT fraction (Dmnl) = ∫Chg in comm FIT fraction dt + Initial comm FIT fraction Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #188 A | Commercial hourly demand (kW) = Ave hourly commercial demand*"1 customer"*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #189 A | Commercial PV capacity (MW) = Ave comm PV array*Commercial PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #190 A | Commercial PV payback (Years) = CommPV capex/Annual comm PV savings*"1 system/ customer" Present In 2 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #191 A | Commercial PV penetration (Dmnl) = Commercial PV systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #192 L | Commercial PV systems (Systems) = ∫Chg in commercial PV systems dt + 600.0 Present In 2 Views:Used By
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SWIS2050(2R) | #193 A | Commercial SCM (Dmnl) = Ave comm PV array/Ave hourly commercial demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #194 A | Commercial solar generation (kW) = Ave comm PV array*"1 system"*Private PV capacity factor*Comm solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #195 C | Commercial solar PV fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #196 A | Commercial storage capacity (Hour*MW) = Comm storage capacity per system*Commercial storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #197 C | Commercial storage fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #198 A | Commercial storage payback (Years) = min(Comm storage capex/Addtional comm storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #199 A | Commercial storage penetration (Dmnl) = Commercial storage systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #200 A | Commercial storage savings ($/(customer*year)) = (Annual demand per comm customer/"GW/kW")*((Commercial tariff*(1-Comm storage import fraction))+(Comm storage export fraction*Commercial FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #201 L | Commercial storage systems (Systems) = ∫Chg in comm storage systems dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #202 A | Commercial tariff ($/kWh) = Initial commercial tariff*Network generation tariff multiplier Present In 2 Views:Used By
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SWIS2050(2R) | #203 A | CommPV capex ($/system) = Ave comm PV array*Unit cost of commercial solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #204 C | Correction factor (Dmnl) = 1.01 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #205 L | Cum coal generation (MW*Hour) = ∫Hourly CG in-Hourly CG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,609 (9.8%) (+) 589 [15,30] (-) 596 [2,30] (?) 424 [14,30] |
SWIS2050(2R) | #206 L | Cum CT generation (MW* Hour) = ∫Hourly GCT in-Hourly GCT out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 6,103 (37.2%) (+) 2,295 [15,30] (-) 2,328 [2,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #207 L | Cum gas CC generation (MW* Hour) = ∫Hourly GCC in-Hourly GCC out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 2,893 (17.6%) (+) 1,064 [15,30] (-) 1,085 [2,30] (?) 744 [14,30] |
SWIS2050(2R) | #208 L | Cum thermal network undergeneration (MW*Hour) = ∫Hourly TNU in-Hourly TNU out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #209 L | Cumulative biogas generation (MW*Hour) = ∫Hourly BG in-Hourly BG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 126 [10,30] (-) 138 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #210 L | Cumulative coal emissions (Hour*tCO2e) = ∫Coal emissions in-Coal emission out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #211 L | Cumulative coal operating hours (Hour) = ∫Coal operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #212 L | Cumulative demand met by customers (MW*Hour) = ∫Hourly demand met in-Hourly demand met out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 233 (1.4%) (+) 30 [27,30] (-) 29 [2,30] (?) 174 [27,30] |
SWIS2050(2R) | #213 L | Cumulative demand met by network renewables (MW*Hour) = ∫DNR in-DNR out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #214 L | Cumulative emissions (tCO2e*Hour) = ∫Additive annual emissions dt + 0.0 Present In 1 View:Used By |
SWIS2050(2R) | #215 L | Cumulative gas CC emissions (Hour*tCO2e) = ∫Gas CC emissions in-Gas CC emissions out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #216 L | Cumulative gas CC operating hours (Hour) = ∫Gas CC operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #217 L | Cumulative gas CT emissions (Hour*tCO2e) = ∫Gas CT emissions in-Gas CT emissions out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #218 L | Cumulative gas CT operating hours (Hours) = ∫Gas CT operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #219 L | Cumulative generation curtailed (MW*Hour) = ∫Gen curtailed in-Gen curtailed out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #220 L | Cumulative LS solar generation (MW* Hour) = ∫Hourly LSS in-Hourly LSS out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #221 L | Cumulative network load (MW*Hour) = ∫Hourly NL in-Hourly NL out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #222 L | Cumulative network storage discharge (Hour*MW) = ∫NS discharge in-NS discharge out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #223 L | Cumulative network storage losses (MW*Hour) = ∫Hourly NS losses in-Hourly NS losses out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #224 L | Cumulative network thermal load (MW*Hours) = ∫Hourly NTL in-Hourly NTL out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,669 (10.2%) (+) 422 [18,30] (-) 434 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #225 L | Cumulative wave generation (MW* Hour) = ∫Hourly WaveG in-Hourly WaveG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #226 L | Cumulative wind generation (MW* Hour) = ∫Hourly WG in-Hourly WG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #227 A | D-Ave/Bio (Dmnl) = Average 2050 renewables costs per MWh/"2050 Biogas costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #228 A | Demand met by network renewables (MW) = IF THEN ELSE(Total network load<=0, 0 , IF THEN ELSE( Total network load<Network renewables generation, Total network load , Network renewables generation ) ) Present In 1 View:Used ByFeedback Loops: 270 (1.6%) (+) 60 [24,30] (-) 70 [14,30] (?) 140 [14,30] |
SWIS2050(2R) | #229 C,F | Diesel additions (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #230 L | Diesel capacity (MW) = ∫Diesel additions-Diesel retirements dt + 132.0 Present In 1 View:Used By |
SWIS2050(2R) | #231 C,F | Diesel retirements (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #232 F,A | DNR in (MW) = Demand met by network renewables*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #233 F,A | DNR out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative demand met by network renewables/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #234 C | EI adjustment period (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #235 L | Energy intensity (GWh/$m/year) = ∫Chgs to energy intensity dt + Initial energy intensity Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #236 C | Energy intensity multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #237 A | Excess comm generation (kW) = IF THEN ELSE(Net comm PV production>0, Net comm PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
SWIS2050(2R) | #238 A | Excess resi generation (kW) = IF THEN ELSE(Net resi PV production>0, Net resi PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
.Control | #239 C | FINAL TIME (Hour) = 10080 Description: The final time for the simulation. Present In 0 Views: |
SWIS2050(2R) | #240 F,A | Gas CC additions (MW/Hour) = (Gas CC capacity*Required thermal network additions-Gas CC capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,012 (6.2%) (+) 203 [6,30] (-) 206 [2,30] (?) 603 [17,30] |
SWIS2050(2R) | #241 A | Gas CC available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=3,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #242 L | Gas CC capacity (MW) = ∫Gas CC additions-Gas CC retirement dt + Initial gas CC capacity Present In 2 Views:Used By
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SWIS2050(2R) | #243 C | Gas CC capex ($/MW) = 1.092e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #244 F,A | Gas CC emissions in (tCO2e) = Hourly gas CC emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #245 F,A | Gas CC emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #246 C | Gas CC emissions per MWh (tCO2e/(MW)) = 0.349 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #247 C | Gas CC FOM ($/MW/year) = 10000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #248 A | Gas CC fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CC TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #249 A | Gas CC generation (MW) = IF THEN ELSE((Network thermal load-Coal generation)<Min gas CC generation capacity, 0,IF THEN ELSE((Network thermal load-Coal generation)<Max gas CC generation capacity, (Network thermal load-Coal generation)*Gas CC available hours , Max gas CC generation capacity*Gas CC available hours)) Present In 2 Views:Used By
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SWIS2050(2R) | #250 A | Gas CC hourly capex ($/MW/Hour) = (Gas CC capex*Gas CC PMT)/(Hours per year*365/12)/Gas CC operating CF Present In 1 View:Used ByFeedback Loops: 502 (3.1%) (+) 212 [24,30] (-) 218 [24,30] (?) 72 [28,30] |
SWIS2050(2R) | #251 A | Gas CC hourly costs per MWh ($/(MW*Hour)) = Gas CC hourly capex+Gas CC VOM+((Gas CC FOM/Gas CC operating CF)/(Hours per year*365/12))+Gas CC fuel costs Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #252 A | Gas CC hourly operating costs ($/Hour) = Gas CC capacity*Gas CC hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #253 A | Gas CC operating CF (Dmnl) = XIDZ( Cumulative gas CC operating hours,Time,Nominal Gas CC CF) Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #254 F,A | Gas CC operating hours (Dmnl) = Gas CC generation/Gas CC capacity Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #255 C | Gas CC phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #256 C | Gas CC PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #258 A | Gas CC retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CC phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #259 C | Gas CC TE (Dmnl) = 0.506 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #260 C | Gas CC VOM ($/(MW*Hour)) = 7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #261 A | Gas CC% (Dmnl) = ZIDZ(Gas CC generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #262 C | Gas cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #263 A | Gas CT % (Dmnl) = ZIDZ(Gas CT generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #264 F,A | Gas CT additions (MW/Hour) = (Gas CT capacity*Required thermal network additions-Gas CT capacity)/(Thermal plant construction time*Hours per year)+(Addtl Gas CT reqd/"1 hour") Present In 1 View:Used By
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SWIS2050(2R) | #265 L | Gas CT capacity (MW) = ∫Gas CT additions-Gas CT retirements dt + Initial gas CT capacity Description: Assume diesel capacity (132 MW) is added Present In 2 Views:Used By
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SWIS2050(2R) | #266 C | Gas CT capex ($/MW) = 725000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #267 C | Gas CT emission per MWh (tCO2e/MW) = 0.515 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #268 F,A | Gas CT emissions in (tCO2e) = Hourly gas CT emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #269 F,A | Gas CT emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CT emissions/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #270 C | Gas CT FOM ($/MW/year) = 4000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #271 A | Gas CT fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CT TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #272 A | Gas CT generation (MW) = min((Network thermal load-Coal generation-Gas CC generation),Gas CT capacity) Present In 2 Views:Used ByFeedback Loops: 6,857 (41.7%) (+) 2,381 [15,30] (-) 2,408 [7,30] (?) 2,068 [14,30] |
SWIS2050(2R) | #273 A | Gas CT hourly capex ($/MW/Hour) = Gas CT capex*Gas CT PMT/(Hours per year*365/12)/Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #274 A | Gas CT hourly costs per MWh ($/(MW*Hour)) = Gas CT hourly capex+Gas CT VOM+(Gas CT FOM/Nominal Gas CT CF/(Hours per year*365/12))+Gas CT fuel costs Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #275 A | Gas CT hourly operating costs ($/Hour) = Gas CT capacity*Gas CT hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #276 A | Gas CT operating CF (Dmnl) = XIDZ( Cumulative gas CT operating hours,Time,Nominal Gas CT CF) Present In 2 Views:Used By |
SWIS2050(2R) | #277 F,A | Gas CT operating hours (Dmnl) = Gas CT generation/Gas CT capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #278 C | Gas CT phase out period (Years) = 18000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #279 C | Gas CT PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #280 A | Gas CT retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CT phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
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SWIS2050(2R) | #282 C | Gas CT TE (Dmnl) = 0.346 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #283 C | Gas CT VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #284 C | Gas fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #285 L | Gas fuel unit cost ($/GJ) = ∫Chg in gas fuel cost dt + Initial gas fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #286 F,A | Gen curtailed in (MW) = Generation curtailed*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #287 F,A | Gen curtailed out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative generation curtailed/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #288 A | Generation curtailed (MW) = -Negative network load-Network storage charge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #289 C | Generation fraction of tariff (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #290 A,T | GF- comm array (kW/system) "GF- comm array"([(0,0)-(30,300)],(0,265),(3.30275,178.947),(7.157,100),(12.5688,40.7895),(19.63,6),(30,0)) _DOC_GRAPH_/plot_11.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #291 A,T | GF- comm storage exports (Dmnl) "GF- comm storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6)) _DOC_GRAPH_/plot_0.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #292 A,T | GF- comm storage imports (Dmnl) "GF- comm storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02)) _DOC_GRAPH_/plot_14.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #293 A,T | GF- resi array (kW/system) "GF- resi array"([(0,0)-(30,10)],(0,7.75),(1,7),(4.31193,4.91228),(9.309,2.9),(13.7615,1.66667),(19.633,0.48),(30,0)) _DOC_GRAPH_/plot_8.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #294 A,T | GF- resi storage exports (Dmnl) "GF- resi storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6)) _DOC_GRAPH_/plot_4.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #295 A,T | GF- resi storage imports (Dmnl) "GF- resi storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02)) _DOC_GRAPH_/plot_13.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #296 A,T | GF- storage (Hours) "GF- storage"([(0,0)-(20,10)],(0,0),(1,0),(2,1),(3,2),(4,3),(5,3),(7,3),(9,2),(10,1.5),(20,1)) _DOC_GRAPH_/plot_6.png)
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #297 A,T | GF-comm PV (Dmnl) "GF-comm PV"([(0,0.5)-(20,1)],(0,1),(1,0.741),(2,0.657),(3,0.598),(4,0.572),(5,0.556),(7,0.536),(9,0.525),(20,0.5)) _DOC_GRAPH_/plot_15.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2)) _DOC_GRAPH_/plot_17.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #299 A,T | GF-resi PV (Dmnl) "GF-resi PV"([(0,0.4)-(10,1)],(0,1),(1,0.799),(1.34557,0.744737),(2,0.682),(3,0.629),(5,0.583),(7,0.56),(9,0.547),(10,0.545)) _DOC_GRAPH_/plot_10.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #300 A,T | GF-solar PV penetration (Dmnl) "GF-solar PV penetration"([(0,0)-(30,1)],(0,1),(1.00917,0.644737),(2,0.39),(3,0.23),(4,0.13),(5,0.08),(6,0.062),(8,0.05),(30,0),(100,0)) _DOC_GRAPH_/plot_5.png)
Description: Modified on 24 Jan to reflect new payback analysis
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #301 C | GJ/MWh (GJ/(MW*Hour)) = 3.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #302 L | GSP ($m) = ∫Chgs to GSP dt + 239581.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #303 C | GSP annual growth fraction (1/year) = 0.033 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #304 C | GW/kW (GWh/kWh) = 1e-06 Present In 3 Views:Used By
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SWIS2050(2R) | #305 A | Hour of the day (Hour) = MODULO(Time, 24 ) Present In 2 Views:Used By |
SWIS2050(2R) | #306 A | Hour of the year (Hour) = MODULO(Time, 288 ) Present In 7 Views:
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SWIS2050(2R) | #307 F,A | Hourly BG in (MW) = Biogas generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #308 F,A | Hourly BG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative biogas generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #309 F,A | Hourly CG in (MW) = Coal generation*365/12 Present In 1 View:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #310 F,A | Hourly CG out (MW) = IF THEN ELSE(Hour of the year=0, Cum coal generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #311 A | Hourly coal emissions (tCO2e) = Coal generation*Coal emissions per MWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #312 A | Hourly demand balance (MW) = Net hourly network demand-Hourly network generation plus storage discharges Present In 2 Views:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #313 F,A | Hourly demand met in (MW) = Total hourly demand met by customers*365/12 Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #314 F,A | Hourly demand met out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative demand met by customers/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #315 A | Hourly gas CC emissions (tCO2e) = Gas CC emissions per MWh*Gas CC generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #316 A | Hourly gas CT emissions (tCO2e) = Gas CT emission per MWh*Gas CT generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #317 F,A | Hourly GCC in (MW) = Gas CC generation*365/12 Present In 1 View:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #318 F,A | Hourly GCC out (MW) = IF THEN ELSE(Hour of the year=0, Cum gas CC generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #319 F,A | Hourly GCT in (MW) = Gas CT generation*365/12 Present In 1 View:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #320 F,A | Hourly GCT out (MW) = IF THEN ELSE(Hour of the year=0, Cum CT generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #321 F,A | Hourly LSS in (MW) = LS solar PV generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #322 F,A | Hourly LSS out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative LS solar generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #323 A | Hourly network generation plus storage discharges (MW) = Network storage discharge+Total network thermal generation+Demand met by network renewables Present In 1 View:Used ByFeedback Loops: 2,875 (17.5%) (+) 558 [15,30] (-) 564 [7,30] (?) 1,753 [14,30] |
SWIS2050(2R) | #324 F,A | Hourly NL in (MW) = Total network load*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #325 F,A | Hourly NL out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative network load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #326 F,A | Hourly NS losses in (MW) = Network storage losses*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #327 F,A | Hourly NS losses out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage losses/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #328 F,A | Hourly NTL in (MW) = Network thermal load*365/12 Present In 1 View:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #329 F,A | Hourly NTL out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network thermal load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #330 F,A | Hourly TNU in (MW) = Thermal network undergeneration*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #331 F,A | Hourly TNU out (MW) = IF THEN ELSE(Hour of the year=0, Cum thermal network undergeneration/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #332 F,A | Hourly WaveG in (MW) = Wave generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #333 F,A | Hourly WaveG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wave generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #334 F,A | Hourly WG in (MW) = Wind generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #335 F,A | Hourly WG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wind generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #336 C | Hours per year (Hours/year) = 288 Present In 7 Views:
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SWIS2050(2R) | #337 A | Indicated comm PV array (kW/system) = "GF- comm array"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #338 A | Indicated resi PV array (kW/system) = "GF- resi array"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #339 A | Industry energy demand (GWh/year) = Energy intensity*GSP Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #340 A | Initial annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Time=0, Cumulative network thermal load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #341 LI,C | Initial coal capacity (MW) = 1778 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #342 LI,C | Initial coal fuel cost ($/GJ) = 2.75 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #343 LI,A | Initial comm FIT fraction (Dmnl) = Initial commercial FIT/Initial commercial tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #344 C | Initial commercial FIT ($/kWh) = 0.0713 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #345 C | Initial commercial tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #346 LI,C | Initial energy intensity (GWh/$m/year) = 0.055992 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #347 LI,C | Initial gas CC capacity (MW) = 2058 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #348 LI,C | Initial gas CT capacity (MW) = 1056+132 Present In 1 View:Used By
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SWIS2050(2R) | #349 LI,C | Initial gas fuel cost ($/GJ) = 12.3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #350 C | Initial large customer tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #351 C | Initial network unit cost ($/(MW*Hour)) = 100 Description: Year 1 result Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #352 C | Initial residential FIT ($/kWh) = 0.0713 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #353 LI,A | Initial residential FIT fraction (Dmnl) = Initial residential FIT/Initial residential tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #354 C | Initial residential tariff ($/kWh) = 0.26 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #355 A | Initial thermal plant (MW) = Initial coal capacity+Initial gas CC capacity+Initial gas CT capacity Present In 1 View:Used By |
.Control | #356 C | INITIAL TIME (Hour) = 0 Description: The initial time for the simulation. Present In 0 Views: |
SWIS2050(2R) | #357 C | kW/MW (kW/MW) = 1000 Present In 3 Views:Used By
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SWIS2050(2R) | #358 C | kWh (kWh/(kW*Hour)) = 1 Present In 3 Views:Used By
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SWIS2050(2R) | #359 C | kWh/MWh (kWh/(MW*Hour)) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #360 A | Large customer hourly demand (kW/customer) = Ave hourly large customer demand*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #361 A | Large customer tariff ($/kWh) = Initial large customer tariff*Network generation tariff multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #362 L | Large customers (Customers) = ∫Chg in large customers dt + 9.0 Present In 2 Views:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #363 F,A | LS solar additions (MW/Hour) = LSS replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #364 A | LS solar capex ($/MW) = {3.86e+006}Unit cost of utility scale solar PV*"kW/MW" Description: Assume single axisAETA 2012 cost is 3860 $/kWAcil Allen cost is 2900 $/kW Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #365 C | LS solar CF (Dmnl) = 0.23 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #366 C | LS solar FOM ($/MW/year) = 30000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #367 A | LS solar hourly capex ($/MW/Hour) = LS solar capex*LS solar PMT/(Hours per year*365/12)/LS solar CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #368 A | LS solar hourly costs per MWh ($/(MW*Hour)) = LS solar hourly capex+LS solar VOM+(LS solar FOM/LS solar CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #369 A | LS solar hourly operating costs ($/Hour) = LS Solar PV capacity*LS solar hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #370 C | LS solar life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' ) _DOC_GRAPH_/plot_3.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #372 C | LS solar PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #373 L | LS Solar PV capacity (MW) = ∫LS solar additions-LS solar retirements dt + 10.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #374 A | LS solar PV generation (MW) = LS Solar PV capacity*LS solar CF*LS solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #375 F,A | LS solar retirements (MW/Hour) = (LS Solar PV capacity-(LS Solar PV capacity*Renewables adjustments))/(Solar capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #376 C | LS solar VOM ($/(MW*Hour)) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #377 A | LSS replacements (MW/Hour) = Total retired thermal generation*LSS share by cost/LS solar CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #378 C | LSS share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #379 A | LSS share by cost (Dmnl) = "A-Ave/LSS"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #380 A | Max coal generation capacity (MW) = 0.72*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #381 A | Max comm PV systems (Systems) = Commercial customers*Maximum comm PV generation*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #382 A | Max gas CC generation capacity (MW) = 0.9*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #383 A | Max resi PV systems (Systems) = Maximum resi PV penetration*Residential customers*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #384 C | Maximum comm PV generation (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #385 A | Maximum network storage (Hour*MW) = (Annual private PV generation+Annual network renewables generation)/Network generation storage ratio Present In 1 View:Used ByFeedback Loops: 1,720 (10.5%) (+) 559 [21,30] (-) 597 [20,30] (?) 564 [20,30] |
SWIS2050(2R) | #386 C | Maximum resi PV penetration (Dmnl) = 0.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #387 A | Min coal generation capacity (MW) = 0.67*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #388 A | Min gas CC generation capacity (MW) = 0.2*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #389 C | Minimum private storage discharge (Dmnl) = 0.2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #390 A | Month of the year (Dmnl) = time lookup (Hour of the year/"1 hour") Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #391 C | MW/GW (MW*Hour/GWh) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #393 A | Negative network load (MW) = min((Total network load-Network renewables generation),0) Present In 1 View:Used ByFeedback Loops: 7,080 (43.1%) (+) 2,533 [18,30] (-) 2,547 [17,30] (?) 2,000 [17,30] |
SWIS2050(2R) | #394 A | Net annual network demand (Hour*MW) = Total annual demand in MWh-Annual total demand met by customers Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #395 A | Net comm PV production (kW) = Commercial solar generation-Commercial hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #396 A | Net hourly network demand (MW) = Total hourly demand-Total hourly demand met by customers Present In 1 View:Used ByFeedback Loops: 170 (1.0%) (+) 60 [24,30] (-) 54 [24,30] (?) 56 [28,30] |
SWIS2050(2R) | #397 A | Net private storage hours (Hour) = Total private storage capacity/Total private PV capacity Present In 1 View:Used By |
SWIS2050(2R) | #398 A | Net resi PV production (kW) = Residential solar generation-Residential hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #399 F,A | Net residential customer growth (Customers/Hour) = Residential customers*Annual residential growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #400 A | Network battery storage capacity (MW*Hour) = Network storage capacity*"PHES - battery split" Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #401 C | Network generation storage ratio (Dmnl) = 750 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #402 A | Network generation tariff multiplier (Dmnl) = IF THEN ELSE(Tariff multiplier switch<>0, ((Network unit cost/Initial network unit cost-1)*Generation fraction of tariff)+1,1) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #403 A | Network load from comm solar premises (kW) = Comm solar imports-Comm solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #404 A | Network load from comm storage premises (kW) = Comm storage imports-Comm storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #405 A | Network load from resi solar only home (kW) = Resi solar imports-Resi solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #406 A | Network load from resi storage home (kW) = Resi storage imports-Resi storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #407 A | Network renewables generation (MW) = LS solar PV generation+Wave generation+Wind generation+Biogas generation Present In 2 Views:Used ByFeedback Loops: 2,580 (15.7%) (+) 274 [15,30] (-) 266 [14,30] (?) 2,040 [14,30] |
SWIS2050(2R) | #408 L | Network storage capacity (MW*Hour) = ∫Chg in network storage capacity-Swap dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #409 F,A | Network storage charge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Negative network load<=(Maximum network storage/"1 hour"), -Negative network load*Network storage switch,0) Present In 1 View:Used ByFeedback Loops: 8,802 (53.6%) (+) 3,093 [2,30] (-) 3,145 [3,30] (?) 2,564 [17,30] |
SWIS2050(2R) | #410 F,A | Network storage discharge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Positive network load<(Network storage minimum discharge level*Network storage capacity/"1 hour"),0,Positive network load) Present In 1 View:Used By
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SWIS2050(2R) | #411 C | Network storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #412 F,A | Network storage losses (MW) = Network storage charge*Network storage loss fraction Present In 1 View:Used ByFeedback Loops: 3,821 (23.3%) (+) 1,369 [18,30] (-) 1,375 [3,30] (?) 1,077 [18,30] |
SWIS2050(2R) | #413 C | Network storage minimum discharge level (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #414 L | Network storage SoC (MW*Hour) = ∫(Network storage charge-Network storage discharge)-Network storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 9,349 (56.9%) (+) 3,290 [2,30] (-) 3,355 [2,30] (?) 2,704 [17,30] |
SWIS2050(2R) | #415 C | Network storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #416 A | Network thermal load (MW) = Positive network load-Network storage discharge Present In 1 View:Used By
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SWIS2050(2R) | #417 A | Network unit cost ($/(MW*Hour)) = XIDZ( Annual network generation and storage costs,Annual network generation,Initial network unit cost) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #418 A | Nominal annual thermal generation capacity (MW*Hour/year) = Nominal coal annual generation capacity+Nominal gas CC annual generation capacity+Nominal gas CT annual generation capacity Present In 1 View:Used ByFeedback Loops: 967 (5.9%) (+) 123 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #419 A | Nominal coal annual generation capacity (MW*Hour/year) = Coal capacity*Nominal Coal CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #420 C | Nominal Coal CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #421 C | Nominal coal life (Years) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #422 A | Nominal gas CC annual generation capacity (MW*Hour/year) = Gas CC capacity*Nominal Gas CC CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #423 C | Nominal Gas CC CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #424 C | Nominal gas CC life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #425 A | Nominal gas CT annual generation capacity (MW*Hour/year) = Gas CT capacity*Nominal Gas CT CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 965 (5.9%) (+) 121 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #426 C | Nominal Gas CT CF (Dmnl) = 0.1 Present In 3 Views:Used By
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SWIS2050(2R) | #427 C | Nominal gas CT life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #428 A | Non-solar comm premises (Dmnl) = ((Commercial customers*"1 system/ customer")-Commercial PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #429 A | Non-solar homes (Dmnl) = ((Residential customers*"1 system/ customer")-Residential PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #430 A | Normal annual comm electricity charges ($/(year*customer)) = Annual demand per comm customer*Commercial tariff/"GW/kW" Present In 1 View:Used By |
SWIS2050(2R) | #431 A | Normal annual large cust electricity charges ($/(year*customer)) = Annual demand per large customer/"GW/kW"*Large customer tariff Present In 1 View:Used By |
SWIS2050(2R) | #432 A | Normal annual resi electricity charges ($/(year*customer)) = Ave annual residential demand per customer*Residential tariff Present In 1 View:Used By |
SWIS2050(2R) | #433 F,A | NS discharge in (MW) = Network storage discharge*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #434 F,A | NS discharge out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage discharge/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #435 C | Onshore wind capex 2050 ($/MW) = 2.024e+06 Description: 80% of initial costs - LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #436 A | Optimum comm storage hours (Hours) = "GF- storage"(Commercial SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #437 A | Optimum resi storage hours (Hours) = "GF- storage"(Residential SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #438 C | PHES - battery split (Dmnl) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #439 A | PHES capacity (MW*Hour) = "PHES - battery split"*Network storage capacity Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #440 C | PHES capex per MWh ($/(MW*Hour)) = 200000 Description: LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #441 A | PHES FOM ($/(MW*Hour*Hour)) = PHES capex per MWh*"PHES opex %"/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #442 A | PHES hourly capex ($/(MW*Hour*Hour)) = PHES capex per MWh*PHES PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #443 A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) = PHES hourly capex+PHES FOM Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #444 C | PHES life (year) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #445 C | PHES opex % (1/year) = 0.015 Description: Guesstimate Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #446 C | PHES PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #447 A | Positive network load (MW) = max(Total network load-Network renewables generation,0) Present In 1 View:Used ByFeedback Loops: 6,864 (41.8%) (+) 2,379 [15,30] (-) 2,395 [14,30] (?) 2,090 [14,30] |
SWIS2050(2R) | #448 C | Private PV capacity factor (Dmnl) = 0.183506 Present In 4 Views:Used By
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SWIS2050(2R) | #449 A | Renewables adjustments (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,1,Annual demand balance ratio) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #450 A | Renewables total share (1) = Biogas share+LSS share+Wave share+Wind share Present In 1 View:Used By |
SWIS2050(2R) | #451 A | Required thermal network additions (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,"GF-network additions"("Thermal network annual load / capacity"),1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #452 A,T | Resi demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New load profiles Dec17' , 'q' , 'r5' ) _DOC_GRAPH_/plot_18.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #453 C | Resi FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #454 A | Resi PV additions (Dmnl) = "GF-solar PV penetration"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #455 A | Resi PV capex ($/system) = Ave resi PV array*Unit cost of residential solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #456 A | Resi PV import fraction (Dmnl) = "GF-resi PV"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #457 C | Resi PV purchase adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #458 C | Resi solar adjustment time (Hours) = 288*10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #459 A | Resi solar exports (kW) = Excess resi generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #460 A | Resi solar imports (kW) = Resi storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #461 A,T | Resi solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'ao5' ) _DOC_GRAPH_/plot_16.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #462 C | Resi solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #463 A | Resi storage capacity per system (kW*Hour) = Ave resi PV array*Optimum resi storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #464 A | Resi storage capex ($/customer) = Residential SCM*Ave hourly residential demand*Optimum resi storage hours*Unit cost of residential storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #465 F,A | Resi storage charge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")+Excess resi generation<=(Resi storage capacity per system/"1 hour"), Excess resi generation , (Resi storage capacity per system-Resi storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #466 A | Resi storage demand (kW) = IF THEN ELSE(Net resi PV production<=0, -Net resi PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #467 F,A | Resi storage discharge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")-Resi storage demand>=Minimum private storage discharge*(Resi storage capacity per system/"1 hour"), Resi storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #468 A | Resi storage export fraction (Dmnl) = "GF- resi storage exports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #469 A | Resi storage exports (kW) = Excess resi generation-Resi storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #470 A | Resi storage import fraction (Dmnl) = "GF- resi storage imports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #471 A | Resi storage imports (kW) = Resi storage demand-Resi storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #472 F,A | Resi storage losses (kW) = Resi storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #473 A | Resi storage penetration (Dmnl) = "GF-solar PV penetration"(Residential storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #474 L | Resi storage per system (kW*Hour) = ∫(Resi storage charge-Resi storage discharge)-Resi storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 702 (4.3%) (+) 262 [3,30] (-) 269 [2,30] (?) 171 [27,30] |
SWIS2050(2R) | #475 C | Resi storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #476 L | Residential customers (Customers) = ∫Net residential customer growth dt + 1071960.0 Description: ESOO report Table 14 says 1,071,960 but methodoloy report says 980,000 Present In 3 Views:Used By
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SWIS2050(2R) | #477 A | Residential demand met by solar PV (kW) = min(Residential solar generation,Residential hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #478 A | Residential FIT ($/kWh) = Residential tariff*Residential FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #479 L | Residential FIT fraction (Dmnl) = ∫Chg in resi FIT fraction dt + Initial residential FIT fraction Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #480 A | Residential hourly demand (kW) = Ave hourly residential demand*"1 customer"*Resi demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #481 A | Residential PV capacity (MW) = Ave resi PV array*Residential PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #482 A | Residential PV payback (Years) = Resi PV capex/Annual resi PV savings*"1 system/ customer" Present In 3 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #483 A | Residential PV penetration (Dmnl) = Residential PV systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #484 L | Residential PV systems (Systems) = ∫Chg in resi solar PV systems dt + 245000.0 Description: 25% of 980,000 Present In 2 Views:Used By
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SWIS2050(2R) | #485 A | Residential SCM (Dmnl) = Ave resi PV array/Ave hourly residential demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #486 A | Residential solar generation (kW) = Ave resi PV array*"1 system"*Private PV capacity factor*Resi solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #487 A | Residential storage capacity (Hour*MW) = Resi storage capacity per system*Residential storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #488 A | Residential storage payback (Years) = min(Resi storage capex/Addtional resi storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #489 A | Residential storage penetration (Dmnl) = Residential storage systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #490 A | Residential storage savings ($/(customer*year)) = Ave annual residential demand per customer*((Residential tariff*(1-Resi storage import fraction))+(Resi storage export fraction*Residential FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #491 L | Residential storage systems (Systems) = ∫Chg in resi storage systems dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #492 A | Residential tariff ($/kWh) = Initial residential tariff*Network generation tariff multiplier Present In 3 Views:Used By
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SWIS2050(2R) | #493 A | Retired coal generation (MW/Hour) = Coal retirement*Nominal Coal CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #494 A | Retired gas CC generation (MW/Hour) = Gas CC retirement*Nominal Gas CC CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #495 A | Retired gas CT generation (MW/Hour) = Gas CT retirements*Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 1,092 (6.6%) (+) 99 [15,30] (-) 93 [14,30] (?) 900 [14,30] |
.Control | #496 A | SAVEPER (Hour ) = TIME STEP Description: The frequency with which output is stored. Present In 0 Views: |
SWIS2050(2R) | #497 C | Solar capacity adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #498 A | Solar only comm premises (Dmnl) = (Commercial PV systems-Commercial storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #499 A | Solar only homes (Dmnl) = (Residential PV systems-Residential storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #500 C | start year (year) = 2015 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #501 A | Sum of A-D (Dmnl) = "A-Ave/LSS"+"B-Ave/Wind"+"C-Ave/Wave"+"D-Ave/Bio" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #502 F,A | Swap (MW) = IF THEN ELSE(Chg in network storage capacity<>0, Network storage capacity/"1 hour" ,0 ) Present In 1 View:Used ByFeedback Loops: 2,423 (14.8%) (+) 894 [5,30] (-) 896 [2,30] (?) 633 [20,30] |
SWIS2050(2R) | #503 C | System/customer (system/customer) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #504 C | Tariff multiplier switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #505 C | Thermal network additions switch (Dmnl) = 0 Present In 2 Views:Used By
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SWIS2050(2R) | #506 A | Thermal network annual load / capacity (Dmnl) = XIDZ(Annual network thermal load/"1 year",Nominal annual thermal generation capacity,1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #507 A | Thermal network undergeneration (MW) = Network thermal load-Total network thermal generation Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #508 C | Thermal plant construction time (Years) = 3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #510 A,T | time lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Times' , 'a' , 'b5' ) _DOC_GRAPH_/plot_2.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
.Control | #511 C | TIME STEP (Hour ) = 1 Description: The time step for the simulation. Present In 0 Views:
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SWIS2050(2R) | #512 A | Total annual demand (GWh/year) = Annual commercial customer demand+Annual large customer demand+Annual residential customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #513 A | Total annual demand in MWh (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Total annual demand/Correction factor*Year 0*"1 year"*"MW/GW",0) Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #514 A | Total annual system generation (MW*Hour) = Annual network generation-Annual network storage losses+Annual private PV generation-Annual generation curtailed Present In 1 View:Used By |
SWIS2050(2R) | #515 A | Total commercial network load (MW) = (Total network load from comm solar premises+Total network load from comm storage premises+"Total network load from non-solar comm premises")/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #516 A | Total hourly demand (MW) = ("Total hourly demand - resi customers"+"Total hourly demand - comm customers"+"Total hourly demand - large customers")/"kW/MW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #517 A | Total hourly demand - comm customers (kW) = Commercial customers*Commercial hourly demand/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #518 A | Total hourly demand - large customers (kW) = Large customer hourly demand*Large customers Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #519 A | Total hourly demand - resi customers (kW) = Residential hourly demand*Residential customers/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #520 A | Total hourly demand met by customers (MW) = Total hourly demand-max(Total network load,0) Present In 2 Views:Used ByFeedback Loops: 402 (2.4%) (+) 90 [24,30] (-) 82 [24,30] (?) 230 [27,30] |
SWIS2050(2R) | #521 A | Total network load (MW) = Total residential network load+Total commercial network load+("Total hourly demand - large customers"/"kW/MW") Present In 2 Views:Used By
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SWIS2050(2R) | #522 A | Total network load from comm solar premises (kW) = Network load from comm solar premises*Solar only comm premises Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #523 A | Total network load from comm storage premises (kW) = Commercial storage systems*Network load from comm storage premises/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #524 A | Total network load from non-solar comm premises (kW) = Commercial hourly demand*"Non-solar comm premises" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #525 A | Total network load from non-solar homes (kW) = "Non-solar homes"*Residential hourly demand Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #526 A | Total network load from solar only homes (kW) = Network load from resi solar only home*Solar only homes Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #527 A | Total network load from storage home (kW) = Residential storage systems*Network load from resi storage home/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #528 A | Total network thermal generation (MW) = Coal generation+Gas CC generation+Gas CT generation Present In 1 View:Used ByFeedback Loops: 1,889 (11.5%) (+) 324 [15,30] (-) 314 [7,30] (?) 1,251 [17,30] |
SWIS2050(2R) | #529 A | Total private PV capacity (MW) = Commercial PV capacity+Residential PV capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #530 A | Total private PV generation (MW*Hour/year) = Annual commercial PV generation+Annual residential PV generation Present In 1 View:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #531 A | Total private storage capacity (Hour*MW) = Commercial storage capacity+Residential storage capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #532 A | Total residential network load (MW) = ("Total network load from non-solar homes"+Total network load from solar only homes+Total network load from storage home)/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #533 A | Total retired thermal generation (MW/Hour) = IF THEN ELSE(Thermal network additions switch=0, Retired coal generation+Retired gas CC generation+Retired gas CT generation,0) Present In 1 View:Used ByFeedback Loops: 1,884 (11.5%) (+) 187 [15,30] (-) 179 [14,30] (?) 1,518 [14,30] |
SWIS2050(2R) | #534 A | Unit cost of comm battery storage ($/kWh) = Commercial storage fraction*Unit cost of residential storage Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #535 A | Unit cost of commercial solar PV ($/kW) = Commercial solar PV fraction*Unit cost of residential solar PV Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #536 L | Unit cost of residential solar PV ($/kW) = ∫Chg in unit cost of resi solar PV dt + 2460.0 Present In 1 View:Used By
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SWIS2050(2R) | #537 L | Unit cost of residential storage ($/kWh) = ∫Chg in unit cost of resi storage dt + 1000.0 Description: Powerwall costs at Jan 2018 is A$12750 / 13.5 kWh = $945/kWh Present In 1 View:Used By
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SWIS2050(2R) | #538 A | Unit cost of utility scale battery storage ($/kWh) = Unit cost of residential storage*Utility battery storage fraction Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #539 A | Unit cost of utility scale solar PV ($/kW) = Unit cost of residential solar PV*Utility solar PV fraction Present In 2 Views:Used By
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SWIS2050(2R) | #540 A | USBS FOM ($/(MW*Hour*Hour)) = USBS opex/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #541 C | USBS opex ($/(MW*Hour)/year) = 0.025*700000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #542 C | Utility battery storage fraction (Dmnl) = 0.7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #543 A | Utility scale battery storage capex per MWh ($/(MW*Hour)) = Unit cost of utility scale battery storage*"kWh/MWh" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #544 A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) = USBS FOM+Utility scale hourly capex Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #545 C | Utility scale battery storage PMT (1/year) = 0.1424 Description: 10 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #546 A | Utility scale hourly capex ($/(MW*Hour*Hour)) = Utility scale battery storage capex per MWh*Utility scale battery storage PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #547 C | Utility solar PV fraction (Dmnl) = 1.18 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #548 F,A | Wave additions (MW/Hour) = Wave replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #549 L | Wave capacity (MW) = ∫Wave additions-Wave retirements dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #550 C | Wave capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #551 L | Wave capex ($/MW) = ∫Chg in wave capex dt + 5900000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #552 C | Wave capex 2050 ($/MW) = 2.53e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #553 C | Wave capex adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #554 C | Wave CF (Dmnl) = 0.35 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #555 C | Wave FOM ($/MW/year) = 40000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #556 A | Wave generation (MW) = Wave capacity*Wave CF*Wave lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #557 A | Wave hourly capex ($/MW/Hour) = Wave capex*Wave PMT/(Hours per year*365/12)/Wave CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #558 A | Wave hourly costs per MWh ($/(MW*Hour)) = Wave hourly capex+(Wave FOM/Wave CF/(Hours per year*365/12))+Wave VOM Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #559 A | Wave hourly operating costs ($/Hour) = Wave capacity*Wave hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #560 C | Wave life (Years) = 20 Present In 1 View:Used By |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' ) _DOC_GRAPH_/plot_1.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #562 C | Wave PMT (1/year) = 0.0944 Description: 20 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #563 A | Wave replacements (MW/Hour) = Total retired thermal generation*Wave share by cost/Wave CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #564 F,A | Wave retirements (MW/Hour) = (Wave capacity-(Wave capacity*Renewables adjustments))/(Wave capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #565 C | Wave share (Dmnl) = 0.3334 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #566 A | Wave share by cost (Dmnl) = "C-Ave/Wave"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #567 C | Wave VOM ($/(MW*Hour)) = 20 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #568 F,A | Wind additions (MW/Hour) = Wind replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #569 L | Wind capacity (MW) = ∫Wind additions-Wind retirements dt + 478.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #570 C | Wind capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #571 L | Wind capex ($/MW) = ∫Chg in wind capex dt + 2530000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #572 C | Wind capex adj time (Years) = 5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #573 C | Wind CF (Dmnl) = 0.3875 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #574 C | Wind FOM ($/(MW*year)) = 45000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #575 A | Wind generation (MW) = Wind capacity*Wind CF*Wind lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #576 A | Wind hourly capex ($/MW/Hour) = Wind capex*Wind PMT/(Hours per year*365/12)/Wind CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #577 A | Wind hourly costs per MWh ($/(MW*Hour)) = Wind hourly capex+Wind VOM+(Wind FOM/Wind CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #578 A | Wind hourly operating costs ($/Hour) = Wind capacity*Wind hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #579 C | Wind life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' ) _DOC_GRAPH_/plot_7.png)
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #581 C | Wind PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #582 A | Wind replacements (MW/Hour) = Total retired thermal generation*Wind share by cost/Wind CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #583 F,A | Wind retirements (MW/Hour) = (Wind capacity-(Wind capacity*Renewables adjustments))/(Wind capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #584 C | Wind share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #585 A | Wind share by cost (Dmnl) = "B-Ave/Wind"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #586 C | Wind VOM ($/(MW*Hour)) = 13 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #587 A | Year 0 (Dmnl) = IF THEN ELSE(Time=0, 0 , 1 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #588 A | Year label (year ) = TIME BASE (start year,years per hour) Present In 1 View:Used By |
SWIS2050(2R) | #589 C | years per hour (Years/Hour) = 0.00347222 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| (View) Comm payback periods (35 Variables) |
_DOC_GRAPH_/__VIEW__Comm_payback_periods.png) |
| (View) Demand (34 Variables) |
_DOC_GRAPH_/__VIEW__Demand.png) |
| (View) Emissions (26 Variables) |
_DOC_GRAPH_/__VIEW__Emissions.png) |
| (View) Hourly solar and storage (59 Variables) |
_DOC_GRAPH_/__VIEW__Hourly_solar_and_storage.png) |
| (View) Network generation capacity and cost (194 Variables) |
_DOC_GRAPH_/__VIEW__Network_generation_capacity_and_cost.png) |
| Top | (View) Network generation capacity and cost (194 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #2 C | 1 hour (Hour) = 1 Present In 5 Views:
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SWIS2050(2R) | #5 C | 1 year (year) = 1 Present In 5 Views:
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SWIS2050(2R) | #17 A | 2050 unit cost of coal fuel ($/GJ) = Initial coal fuel cost*Coal cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #18 A | 2050 unit cost of gas fuel ($/GJ) = Initial gas fuel cost*Gas cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #29 A | Addtl Gas CT reqd (MW) = IF THEN ELSE(Hourly demand balance>1, Hourly demand balance,0) Present In 1 View:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #31 A | Annual biogas generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative biogas generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #58 A | Annual LS solar generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative LS solar generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #65 A | Annual network renewables generation (MW*Hour) = Annual LS solar generation+Annual wave generation+Annual wind generation+Annual biogas generation Present In 2 Views:Used ByFeedback Loops: 1,384 (8.4%) (+) 114 [10,30] (-) 127 [20,30] (?) 1,143 [10,30] |
SWIS2050(2R) | #69 A | Annual network thermal generation (MW*Hour) = Annual coal generation+Annual gas CC generation+Annual gas CT generation Present In 3 Views:Used ByFeedback Loops: 7,194 (43.8%) (+) 2,496 [15,30] (-) 2,560 [14,30] (?) 2,138 [14,30] |
SWIS2050(2R) | #70 A | Annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network thermal load , 0) Present In 2 Views:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #86 A | Annual wave generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wave generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #88 A | Annual wind generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wind generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #98 F,A | Biogas additions (MW/Hour) = Biogas replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #99 L | Biogas capacity (MW) = ∫Biogas additions-Biogas retirements dt + 21.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 400 [10,30] (-) 404 [2,30] (?) 210 [24,30] |
SWIS2050(2R) | #100 C | Biogas capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #101 C | Biogas capex ($/MW) = 3e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #102 C | Biogas CF (Dmnl) = 0.8 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #103 C | Biogas FOM ($/MW/year) = 150000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #104 A | Biogas generation (MW) = Biogas capacity*Biogas CF Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 400 [10,30] (-) 403 [14,30] (?) 210 [24,30] |
SWIS2050(2R) | #105 A | Biogas hourly capex ($/MW/Hour) = Biogas capex*Biogas PMT/(Hours per year*365/12)/Biogas CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #106 A | Biogas hourly costs per MWh ($/(MW*Hour)) = Biogas hourly capex+Biogas VOM+(Biogas FOM/Biogas CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #107 A | Biogas hourly operating costs ($/Hour) = Biogas capacity*Biogas hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #108 C | Biogas life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #109 C | Biogas PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #110 A | Biogas replacements (MW/Hour) = Total retired thermal generation*Biogas share by cost/Biogas CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #111 F,A | Biogas retirements (MW/Hour) = (Biogas capacity-(Biogas capacity*Renewables adjustments))/(Biogas capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 213 [10,30] (-) 225 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #114 C | Biogas VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #119 F,A | Chg in coal fuel cost ($/GJ/Hour) = ("2050 unit cost of coal fuel"-Coal fuel unit cost)/(Coal fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #124 F,A | Chg in gas fuel cost ($/(Hour*GJ)) = ("2050 unit cost of gas fuel"-Gas fuel unit cost)/(Gas fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #132 F,A | Chg in wave capex ($/(MW*Hour)) = (Wave capex 2050-Wave capex)/(Wave capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #133 F,A | Chg in wind capex ($/MW/Hour) = (Onshore wind capex 2050-Wind capex)/(Wind capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #138 F,A | Coal additions (MW/Hour) = ((Coal capacity*Required thermal network additions)-Coal capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,372 (8.4%) (+) 275 [6,30] (-) 284 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #140 L | Coal capacity (MW) = ∫Coal additions-Coal retirement dt + Initial coal capacity Present In 2 Views:Used By
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SWIS2050(2R) | #141 C | Coal capex ($/MW) = 2.88e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #142 C | Coal cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #146 C | Coal FOM ($/MW/year) = 50500 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #147 C | Coal fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #148 A | Coal fuel costs ($/(MW*Hour)) = Coal fuel unit cost*"GJ/MWh"/Coal TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #149 L | Coal fuel unit cost ($/GJ) = ∫Chg in coal fuel cost dt + Initial coal fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #151 A | Coal hourly capex ($/(MW*Hour)) = (Coal capex*Coal PMT)/(Hours per year*365/12)/Coal operating CF Present In 1 View:Used ByFeedback Loops: 304 (1.9%) (+) 128 [24,30] (-) 132 [24,30] (?) 44 [28,30] |
SWIS2050(2R) | #152 A | Coal hourly costs per MWh ($/(MW*Hour)) = Coal hourly capex+(Coal FOM/Coal operating CF/(Hours per year*365/12))+Coal VOM+Coal fuel costs Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #153 A | Coal hourly operating costs ($/Hour) = Coal capacity*Coal hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #154 A | Coal operating CF (Dmnl) = XIDZ( Cumulative coal operating hours,Time,(Nominal Coal CF)) Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #156 C | Coal phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #157 C | Coal PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #159 A | Coal retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Coal phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #160 C | Coal TE (Dmnl) = 0.415 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #161 C | Coal VOM ($/(MW*Hour)) = 4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #209 L | Cumulative biogas generation (MW*Hour) = ∫Hourly BG in-Hourly BG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 126 [10,30] (-) 138 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #220 L | Cumulative LS solar generation (MW* Hour) = ∫Hourly LSS in-Hourly LSS out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #225 L | Cumulative wave generation (MW* Hour) = ∫Hourly WaveG in-Hourly WaveG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #226 L | Cumulative wind generation (MW* Hour) = ∫Hourly WG in-Hourly WG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #229 C,F | Diesel additions (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #230 L | Diesel capacity (MW) = ∫Diesel additions-Diesel retirements dt + 132.0 Present In 1 View:Used By |
SWIS2050(2R) | #231 C,F | Diesel retirements (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #240 F,A | Gas CC additions (MW/Hour) = (Gas CC capacity*Required thermal network additions-Gas CC capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,012 (6.2%) (+) 203 [6,30] (-) 206 [2,30] (?) 603 [17,30] |
SWIS2050(2R) | #242 L | Gas CC capacity (MW) = ∫Gas CC additions-Gas CC retirement dt + Initial gas CC capacity Present In 2 Views:Used By
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SWIS2050(2R) | #243 C | Gas CC capex ($/MW) = 1.092e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #247 C | Gas CC FOM ($/MW/year) = 10000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #248 A | Gas CC fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CC TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #250 A | Gas CC hourly capex ($/MW/Hour) = (Gas CC capex*Gas CC PMT)/(Hours per year*365/12)/Gas CC operating CF Present In 1 View:Used ByFeedback Loops: 502 (3.1%) (+) 212 [24,30] (-) 218 [24,30] (?) 72 [28,30] |
SWIS2050(2R) | #251 A | Gas CC hourly costs per MWh ($/(MW*Hour)) = Gas CC hourly capex+Gas CC VOM+((Gas CC FOM/Gas CC operating CF)/(Hours per year*365/12))+Gas CC fuel costs Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #252 A | Gas CC hourly operating costs ($/Hour) = Gas CC capacity*Gas CC hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #253 A | Gas CC operating CF (Dmnl) = XIDZ( Cumulative gas CC operating hours,Time,Nominal Gas CC CF) Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #255 C | Gas CC phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #256 C | Gas CC PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #258 A | Gas CC retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CC phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #259 C | Gas CC TE (Dmnl) = 0.506 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #260 C | Gas CC VOM ($/(MW*Hour)) = 7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #262 C | Gas cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #264 F,A | Gas CT additions (MW/Hour) = (Gas CT capacity*Required thermal network additions-Gas CT capacity)/(Thermal plant construction time*Hours per year)+(Addtl Gas CT reqd/"1 hour") Present In 1 View:Used By
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SWIS2050(2R) | #265 L | Gas CT capacity (MW) = ∫Gas CT additions-Gas CT retirements dt + Initial gas CT capacity Description: Assume diesel capacity (132 MW) is added Present In 2 Views:Used By
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SWIS2050(2R) | #266 C | Gas CT capex ($/MW) = 725000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #270 C | Gas CT FOM ($/MW/year) = 4000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #271 A | Gas CT fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CT TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #273 A | Gas CT hourly capex ($/MW/Hour) = Gas CT capex*Gas CT PMT/(Hours per year*365/12)/Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #274 A | Gas CT hourly costs per MWh ($/(MW*Hour)) = Gas CT hourly capex+Gas CT VOM+(Gas CT FOM/Nominal Gas CT CF/(Hours per year*365/12))+Gas CT fuel costs Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #275 A | Gas CT hourly operating costs ($/Hour) = Gas CT capacity*Gas CT hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #276 A | Gas CT operating CF (Dmnl) = XIDZ( Cumulative gas CT operating hours,Time,Nominal Gas CT CF) Present In 2 Views:Used By |
SWIS2050(2R) | #278 C | Gas CT phase out period (Years) = 18000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #279 C | Gas CT PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #280 A | Gas CT retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CT phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
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SWIS2050(2R) | #282 C | Gas CT TE (Dmnl) = 0.346 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #283 C | Gas CT VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #284 C | Gas fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #285 L | Gas fuel unit cost ($/GJ) = ∫Chg in gas fuel cost dt + Initial gas fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #301 C | GJ/MWh (GJ/(MW*Hour)) = 3.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #306 A | Hour of the year (Hour) = MODULO(Time, 288 ) Present In 7 Views:
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SWIS2050(2R) | #307 F,A | Hourly BG in (MW) = Biogas generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #308 F,A | Hourly BG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative biogas generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #312 A | Hourly demand balance (MW) = Net hourly network demand-Hourly network generation plus storage discharges Present In 2 Views:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #321 F,A | Hourly LSS in (MW) = LS solar PV generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #322 F,A | Hourly LSS out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative LS solar generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #332 F,A | Hourly WaveG in (MW) = Wave generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #333 F,A | Hourly WaveG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wave generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #334 F,A | Hourly WG in (MW) = Wind generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #335 F,A | Hourly WG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wind generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #336 C | Hours per year (Hours/year) = 288 Present In 7 Views:
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SWIS2050(2R) | #341 LI,C | Initial coal capacity (MW) = 1778 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #342 LI,C | Initial coal fuel cost ($/GJ) = 2.75 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #347 LI,C | Initial gas CC capacity (MW) = 2058 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #348 LI,C | Initial gas CT capacity (MW) = 1056+132 Present In 1 View:Used By
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SWIS2050(2R) | #349 LI,C | Initial gas fuel cost ($/GJ) = 12.3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #355 A | Initial thermal plant (MW) = Initial coal capacity+Initial gas CC capacity+Initial gas CT capacity Present In 1 View:Used By |
SWIS2050(2R) | #357 C | kW/MW (kW/MW) = 1000 Present In 3 Views:Used By
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SWIS2050(2R) | #359 C | kWh/MWh (kWh/(MW*Hour)) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #363 F,A | LS solar additions (MW/Hour) = LSS replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #364 A | LS solar capex ($/MW) = {3.86e+006}Unit cost of utility scale solar PV*"kW/MW" Description: Assume single axisAETA 2012 cost is 3860 $/kWAcil Allen cost is 2900 $/kW Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #365 C | LS solar CF (Dmnl) = 0.23 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #366 C | LS solar FOM ($/MW/year) = 30000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #367 A | LS solar hourly capex ($/MW/Hour) = LS solar capex*LS solar PMT/(Hours per year*365/12)/LS solar CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #368 A | LS solar hourly costs per MWh ($/(MW*Hour)) = LS solar hourly capex+LS solar VOM+(LS solar FOM/LS solar CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #369 A | LS solar hourly operating costs ($/Hour) = LS Solar PV capacity*LS solar hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #370 C | LS solar life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #372 C | LS solar PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #373 L | LS Solar PV capacity (MW) = ∫LS solar additions-LS solar retirements dt + 10.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #374 A | LS solar PV generation (MW) = LS Solar PV capacity*LS solar CF*LS solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #375 F,A | LS solar retirements (MW/Hour) = (LS Solar PV capacity-(LS Solar PV capacity*Renewables adjustments))/(Solar capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #376 C | LS solar VOM ($/(MW*Hour)) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #377 A | LSS replacements (MW/Hour) = Total retired thermal generation*LSS share by cost/LS solar CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #407 A | Network renewables generation (MW) = LS solar PV generation+Wave generation+Wind generation+Biogas generation Present In 2 Views:Used ByFeedback Loops: 2,580 (15.7%) (+) 274 [15,30] (-) 266 [14,30] (?) 2,040 [14,30] |
SWIS2050(2R) | #418 A | Nominal annual thermal generation capacity (MW*Hour/year) = Nominal coal annual generation capacity+Nominal gas CC annual generation capacity+Nominal gas CT annual generation capacity Present In 1 View:Used ByFeedback Loops: 967 (5.9%) (+) 123 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #419 A | Nominal coal annual generation capacity (MW*Hour/year) = Coal capacity*Nominal Coal CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #420 C | Nominal Coal CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #421 C | Nominal coal life (Years) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #422 A | Nominal gas CC annual generation capacity (MW*Hour/year) = Gas CC capacity*Nominal Gas CC CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #423 C | Nominal Gas CC CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #424 C | Nominal gas CC life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #425 A | Nominal gas CT annual generation capacity (MW*Hour/year) = Gas CT capacity*Nominal Gas CT CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 965 (5.9%) (+) 121 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #426 C | Nominal Gas CT CF (Dmnl) = 0.1 Present In 3 Views:Used By
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SWIS2050(2R) | #427 C | Nominal gas CT life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #435 C | Onshore wind capex 2050 ($/MW) = 2.024e+06 Description: 80% of initial costs - LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #440 C | PHES capex per MWh ($/(MW*Hour)) = 200000 Description: LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #441 A | PHES FOM ($/(MW*Hour*Hour)) = PHES capex per MWh*"PHES opex %"/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #442 A | PHES hourly capex ($/(MW*Hour*Hour)) = PHES capex per MWh*PHES PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #443 A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) = PHES hourly capex+PHES FOM Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #444 C | PHES life (year) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #445 C | PHES opex % (1/year) = 0.015 Description: Guesstimate Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #446 C | PHES PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #449 A | Renewables adjustments (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,1,Annual demand balance ratio) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #451 A | Required thermal network additions (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,"GF-network additions"("Thermal network annual load / capacity"),1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #497 C | Solar capacity adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #505 C | Thermal network additions switch (Dmnl) = 0 Present In 2 Views:Used By
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SWIS2050(2R) | #506 A | Thermal network annual load / capacity (Dmnl) = XIDZ(Annual network thermal load/"1 year",Nominal annual thermal generation capacity,1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #507 A | Thermal network undergeneration (MW) = Network thermal load-Total network thermal generation Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #508 C | Thermal plant construction time (Years) = 3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #538 A | Unit cost of utility scale battery storage ($/kWh) = Unit cost of residential storage*Utility battery storage fraction Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #539 A | Unit cost of utility scale solar PV ($/kW) = Unit cost of residential solar PV*Utility solar PV fraction Present In 2 Views:Used By
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SWIS2050(2R) | #540 A | USBS FOM ($/(MW*Hour*Hour)) = USBS opex/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #541 C | USBS opex ($/(MW*Hour)/year) = 0.025*700000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #543 A | Utility scale battery storage capex per MWh ($/(MW*Hour)) = Unit cost of utility scale battery storage*"kWh/MWh" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #544 A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) = USBS FOM+Utility scale hourly capex Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #545 C | Utility scale battery storage PMT (1/year) = 0.1424 Description: 10 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #546 A | Utility scale hourly capex ($/(MW*Hour*Hour)) = Utility scale battery storage capex per MWh*Utility scale battery storage PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #548 F,A | Wave additions (MW/Hour) = Wave replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #549 L | Wave capacity (MW) = ∫Wave additions-Wave retirements dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #550 C | Wave capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #551 L | Wave capex ($/MW) = ∫Chg in wave capex dt + 5900000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #552 C | Wave capex 2050 ($/MW) = 2.53e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #553 C | Wave capex adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #554 C | Wave CF (Dmnl) = 0.35 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #555 C | Wave FOM ($/MW/year) = 40000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #556 A | Wave generation (MW) = Wave capacity*Wave CF*Wave lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #557 A | Wave hourly capex ($/MW/Hour) = Wave capex*Wave PMT/(Hours per year*365/12)/Wave CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #558 A | Wave hourly costs per MWh ($/(MW*Hour)) = Wave hourly capex+(Wave FOM/Wave CF/(Hours per year*365/12))+Wave VOM Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #559 A | Wave hourly operating costs ($/Hour) = Wave capacity*Wave hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #560 C | Wave life (Years) = 20 Present In 1 View:Used By |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #562 C | Wave PMT (1/year) = 0.0944 Description: 20 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #563 A | Wave replacements (MW/Hour) = Total retired thermal generation*Wave share by cost/Wave CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #564 F,A | Wave retirements (MW/Hour) = (Wave capacity-(Wave capacity*Renewables adjustments))/(Wave capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #567 C | Wave VOM ($/(MW*Hour)) = 20 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #568 F,A | Wind additions (MW/Hour) = Wind replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #569 L | Wind capacity (MW) = ∫Wind additions-Wind retirements dt + 478.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #570 C | Wind capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #571 L | Wind capex ($/MW) = ∫Chg in wind capex dt + 2530000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #572 C | Wind capex adj time (Years) = 5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #573 C | Wind CF (Dmnl) = 0.3875 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #574 C | Wind FOM ($/(MW*year)) = 45000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #575 A | Wind generation (MW) = Wind capacity*Wind CF*Wind lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #576 A | Wind hourly capex ($/MW/Hour) = Wind capex*Wind PMT/(Hours per year*365/12)/Wind CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #577 A | Wind hourly costs per MWh ($/(MW*Hour)) = Wind hourly capex+Wind VOM+(Wind FOM/Wind CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #578 A | Wind hourly operating costs ($/Hour) = Wind capacity*Wind hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #579 C | Wind life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #581 C | Wind PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #582 A | Wind replacements (MW/Hour) = Total retired thermal generation*Wind share by cost/Wind CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #583 F,A | Wind retirements (MW/Hour) = (Wind capacity-(Wind capacity*Renewables adjustments))/(Wind capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #586 C | Wind VOM ($/(MW*Hour)) = 13 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| (View) Network loads (51 Variables) |
_DOC_GRAPH_/__VIEW__Network_loads.png) |
| (View) Network renewables transition (53 Variables) |
_DOC_GRAPH_/__VIEW__Network_renewables_transition.png){kind=spacer} |
| Top | (View) Network renewables transition (53 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #6 A | 2030 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #7 A | 2030 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, LS solar hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #8 A | 2030 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #9 A | 2030 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wind hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #10 A | 2050 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #11 C | 2050 Biogas costs per MWh* ($/(MW*Hour)) = 65.91 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #14 A | 2050 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, LS solar hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #15 C | 2050 LSS costs per MWh* ($/(MW*Hour)) = 59.56 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #21 A | 2050 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #22 C | 2050 Wave costs per MWh* ($/(MW*Hour)) = 114.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #23 A | 2050 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wind hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #24 C | 2050 Wind costs per MWh* ($/(MW*Hour)) = 77.43 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #25 A | A-Ave/LSS (Dmnl) = Average 2050 renewables costs per MWh/"2050 LSS costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #43 A | Annual demand balance ratio (Dmnl) = XIDZ( Net annual network demand,Annual network generation,1) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #95 A | Average 2050 renewables costs per MWh ($/(MW*Hour)) = ("2050 Biogas costs per MWh*"+"2050 LSS costs per MWh*"+"2050 Wave costs per MWh*"+"2050 Wind costs per MWh*") Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #96 A | B-Ave/Wind (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wind costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #102 C | Biogas CF (Dmnl) = 0.8 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #106 A | Biogas hourly costs per MWh ($/(MW*Hour)) = Biogas hourly capex+Biogas VOM+(Biogas FOM/Biogas CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #110 A | Biogas replacements (MW/Hour) = Total retired thermal generation*Biogas share by cost/Biogas CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #112 C | Biogas share (Dmnl) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #113 A | Biogas share by cost (Dmnl) = "D-Ave/Bio"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #115 A | C-Ave/Wave (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wave costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #116 C | Calendar year (year ) = TIME BASE (2015,0.00347222) Description: 2015 means the 2015/16 year as in the 2017 ESOO for the WEM Present In 2 Views:Used By
|
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #227 A | D-Ave/Bio (Dmnl) = Average 2050 renewables costs per MWh/"2050 Biogas costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
|
SWIS2050(2R) | #365 C | LS solar CF (Dmnl) = 0.23 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #368 A | LS solar hourly costs per MWh ($/(MW*Hour)) = LS solar hourly capex+LS solar VOM+(LS solar FOM/LS solar CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #377 A | LSS replacements (MW/Hour) = Total retired thermal generation*LSS share by cost/LS solar CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #378 C | LSS share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #379 A | LSS share by cost (Dmnl) = "A-Ave/LSS"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #420 C | Nominal Coal CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #423 C | Nominal Gas CC CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #426 C | Nominal Gas CT CF (Dmnl) = 0.1 Present In 3 Views:Used By
|
SWIS2050(2R) | #449 A | Renewables adjustments (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,1,Annual demand balance ratio) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #450 A | Renewables total share (1) = Biogas share+LSS share+Wave share+Wind share Present In 1 View:Used By |
SWIS2050(2R) | #493 A | Retired coal generation (MW/Hour) = Coal retirement*Nominal Coal CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #494 A | Retired gas CC generation (MW/Hour) = Gas CC retirement*Nominal Gas CC CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #495 A | Retired gas CT generation (MW/Hour) = Gas CT retirements*Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 1,092 (6.6%) (+) 99 [15,30] (-) 93 [14,30] (?) 900 [14,30] |
SWIS2050(2R) | #501 A | Sum of A-D (Dmnl) = "A-Ave/LSS"+"B-Ave/Wind"+"C-Ave/Wave"+"D-Ave/Bio" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #505 C | Thermal network additions switch (Dmnl) = 0 Present In 2 Views:Used By
|
SWIS2050(2R) | #533 A | Total retired thermal generation (MW/Hour) = IF THEN ELSE(Thermal network additions switch=0, Retired coal generation+Retired gas CC generation+Retired gas CT generation,0) Present In 1 View:Used ByFeedback Loops: 1,884 (11.5%) (+) 187 [15,30] (-) 179 [14,30] (?) 1,518 [14,30] |
SWIS2050(2R) | #554 C | Wave CF (Dmnl) = 0.35 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #558 A | Wave hourly costs per MWh ($/(MW*Hour)) = Wave hourly capex+(Wave FOM/Wave CF/(Hours per year*365/12))+Wave VOM Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #563 A | Wave replacements (MW/Hour) = Total retired thermal generation*Wave share by cost/Wave CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #565 C | Wave share (Dmnl) = 0.3334 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #566 A | Wave share by cost (Dmnl) = "C-Ave/Wave"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #573 C | Wind CF (Dmnl) = 0.3875 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #577 A | Wind hourly costs per MWh ($/(MW*Hour)) = Wind hourly capex+Wind VOM+(Wind FOM/Wind CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #582 A | Wind replacements (MW/Hour) = Total retired thermal generation*Wind share by cost/Wind CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #584 C | Wind share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #585 A | Wind share by cost (Dmnl) = "B-Ave/Wind"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| (View) Network storage and generation (110 Variables) |
_DOC_GRAPH_/__VIEW__Network_storage_and_generation.png) |
| (View) Resi payback periods (42 Variables) |
_DOC_GRAPH_/__VIEW__Resi_payback_periods.png) |
| (View) Solar PV (67 Variables) |
_DOC_GRAPH_/__VIEW__Solar_PV.png) |
| (View) Tariffs and charges (73 Variables) |
_DOC_GRAPH_/__VIEW__Tariffs_and_charges.png) |
| Top | (Group) SWIS2050(2R) (583 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #1 C | 1 customer (customer) = 1 Present In 2 Views:Used By
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SWIS2050(2R) | #2 C | 1 hour (Hour) = 1 Present In 5 Views:
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SWIS2050(2R) | #3 C | 1 system (system) = 1 Present In 3 Views:Used By
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SWIS2050(2R) | #4 C | 1 system/ customer (system/customer) = 1 Present In 4 Views:Used By
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SWIS2050(2R) | #5 C | 1 year (year) = 1 Present In 5 Views:
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SWIS2050(2R) | #6 A | 2030 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #7 A | 2030 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, LS solar hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #8 A | 2030 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #9 A | 2030 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wind hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #10 A | 2050 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #11 C | 2050 Biogas costs per MWh* ($/(MW*Hour)) = 65.91 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #12 C | 2050 comm FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2228 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #13 A | 2050 energy intensity (GWh/(year*$m)) = Initial energy intensity*Energy intensity multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #14 A | 2050 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, LS solar hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #15 C | 2050 LSS costs per MWh* ($/(MW*Hour)) = 59.56 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #16 C | 2050 residential FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2742 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #17 A | 2050 unit cost of coal fuel ($/GJ) = Initial coal fuel cost*Coal cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #18 A | 2050 unit cost of gas fuel ($/GJ) = Initial gas fuel cost*Gas cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #19 C | 2050 unit cost of residential solar PV ($/kW) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #20 C | 2050 unit cost of residential storage ($/kWh) = 200 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #21 A | 2050 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #22 C | 2050 Wave costs per MWh* ($/(MW*Hour)) = 114.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #23 A | 2050 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wind hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #24 C | 2050 Wind costs per MWh* ($/(MW*Hour)) = 77.43 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #25 A | A-Ave/LSS (Dmnl) = Average 2050 renewables costs per MWh/"2050 LSS costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #26 F,A | Additive annual emissions (tCO2e) = IF THEN ELSE(Hour of the year=0,Annual emissions , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #27 A | Addtional comm storage savings ($/(customer*year)) = max(Commercial storage savings-Annual comm PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #28 A | Addtional resi storage savings ($/(customer*year)) = max(Residential storage savings-Annual resi PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #29 A | Addtl Gas CT reqd (MW) = IF THEN ELSE(Hourly demand balance>1, Hourly demand balance,0) Present In 1 View:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #30 A | Annual biogas costs ($) = Annual biogas generation*Biogas hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 12 [29,30] (-) 10 [29,30] |
SWIS2050(2R) | #31 A | Annual biogas generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative biogas generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #32 A | Annual coal costs ($) = Annual coal generation*Coal hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,286 (7.8%) (+) 546 [22,30] (-) 546 [22,30] (?) 194 [26,30] |
SWIS2050(2R) | #33 A | Annual coal emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #34 A | Annual coal generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum coal generation , 0) Present In 2 Views:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #35 A | Annual comm customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #36 A | Annual comm PV exports (kWh/(customer*year)) = Annual comm PV generation-(Annual demand per comm customer/"GW/kW")+Annual comm PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #37 A | Annual comm PV generation (kWh/(customer*year)) = Commercial SCM*Ave hourly commercial demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #38 A | Annual comm PV imports (kWh/customer/year) = Ave hourly commercial demand*Hours per year*365/12*Comm import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #39 A | Annual comm PV savings ($/customer/year) = (((Annual demand per comm customer/"GW/kW")-Annual comm PV imports)*Commercial tariff)+(Annual comm PV exports*Commercial FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #40 A | Annual commercial customer demand (GWh/year) = Industry energy demand-Annual large customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #41 A | Annual commercial PV generation (MW*Hour/year) = Commercial PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #42 A | Annual demand balance (Hour*MW) = Net annual network demand-Annual network generation plus storage discharges Present In 1 View:Used By |
SWIS2050(2R) | #43 A | Annual demand balance ratio (Dmnl) = XIDZ( Net annual network demand,Annual network generation,1) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #44 A | Annual demand met by network renewables (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by network renewables , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #45 A | Annual demand per comm customer (GWh/(year*customer)) = Annual commercial customer demand/Commercial customers Present In 3 Views:Used By
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SWIS2050(2R) | #46 C | Annual demand per large customer (GWh/customer/year) = 316.56 Present In 2 Views:Used By
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SWIS2050(2R) | #47 A | Annual emissions (tCO2e) = Annual coal emissions+Annual gas CC emissions+Annual gas CT emissions Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #48 A | Annual gas CC costs ($) = Annual gas CC generation*Gas CC hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 2,190 (13.3%) (+) 934 [22,30] (-) 930 [22,30] (?) 326 [26,30] |
SWIS2050(2R) | #49 A | Annual gas CC emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #50 A | Annual gas CC generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum gas CC generation , 0) Present In 2 Views:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #51 A | Annual gas CT costs ($) = Annual gas CT generation*Gas CT hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,914 (11.7%) (+) 824 [22,30] (-) 820 [22,30] (?) 270 [26,30] |
SWIS2050(2R) | #52 A | Annual gas CT emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CT emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #53 A | Annual gas CT generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum CT generation , 0) Present In 2 Views:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #54 A | Annual generation curtailed (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative generation curtailed , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #55 A | Annual large customer demand (GWh/year) = Annual demand per large customer*Large customers Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #56 A | Annual large customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #57 A | Annual LS solar costs ($) = Annual LS solar generation*LS solar hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #58 A | Annual LS solar generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative LS solar generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #59 A | Annual network generation (MW*Hour) = Annual network renewables generation+Annual network thermal generation Present In 2 Views:Used ByFeedback Loops: 7,826 (47.6%) (+) 2,523 [10,30] (-) 2,586 [14,30] (?) 2,717 [10,30] |
SWIS2050(2R) | #60 A | Annual network generation and storage costs ($) = Annual network generation costs+Annual network storage costs Present In 1 View:Used ByFeedback Loops: 7,114 (43.3%) (+) 2,920 [21,30] (-) 2,934 [21,30] (?) 1,260 [25,30] |
SWIS2050(2R) | #61 A | Annual network generation costs ($) = Annual network renewables costs+Annual thermal network costs Present In 1 View:Used ByFeedback Loops: 5,478 (33.3%) (+) 2,316 [22,30] (-) 2,306 [22,30] (?) 856 [26,30] |
SWIS2050(2R) | #62 A | Annual network generation plus storage discharges (Hour*MW) = Annual network thermal generation+Annual demand met by network renewables+Annual network storage discharge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #63 A | Annual network load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #64 A | Annual network renewables costs ($) = Annual LS solar costs+Annual wave costs+Annual wind costs+Annual biogas costs Present In 1 View:Used ByFeedback Loops: 88 (0.5%) (+) 12 [29,30] (-) 10 [29,30] (?) 66 [29,30] |
SWIS2050(2R) | #65 A | Annual network renewables generation (MW*Hour) = Annual LS solar generation+Annual wave generation+Annual wind generation+Annual biogas generation Present In 2 Views:Used ByFeedback Loops: 1,384 (8.4%) (+) 114 [10,30] (-) 127 [20,30] (?) 1,143 [10,30] |
SWIS2050(2R) | #66 A | Annual network storage costs ($) = (Annual PHES costs+Annual USBS costs)*"1 year" Present In 1 View:Used ByFeedback Loops: 1,636 (10.0%) (+) 604 [21,30] (-) 628 [21,30] (?) 404 [25,30] |
SWIS2050(2R) | #67 A | Annual network storage discharge (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage discharge , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #68 A | Annual network storage losses (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage losses , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #69 A | Annual network thermal generation (MW*Hour) = Annual coal generation+Annual gas CC generation+Annual gas CT generation Present In 3 Views:Used ByFeedback Loops: 7,194 (43.8%) (+) 2,496 [15,30] (-) 2,560 [14,30] (?) 2,138 [14,30] |
SWIS2050(2R) | #70 A | Annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network thermal load , 0) Present In 2 Views:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #71 A | Annual PHES costs ($/year) = PHES capacity*PHES hourly costs per MWh*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #72 A | Annual private PV generation (Hour*MW) = SAMPLE IF TRUE(Hour of the year=287, Total private PV generation*"1 year" , 0) Present In 2 Views:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #73 A | Annual resi PV exports (kWh/(customer*year)) = Annual resi PV generation-Ave annual residential demand per customer+Annual resi PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #74 A | Annual resi PV generation (kWh/(customer*year)) = Residential SCM*Ave hourly residential demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #75 A | Annual resi PV imports (kWh/customer/year) = Ave hourly residential demand*Hours per year*365/12*Resi PV import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #76 A | Annual resi PV savings ($/customer/year) = ((Ave annual residential demand per customer-Annual resi PV imports)*Residential tariff)+(Annual resi PV exports*Residential FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #77 A | Annual residential customer demand (GWh/year) = Residential customers*Ave annual residential demand per customer*"GW/kW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #78 C | Annual residential demand growth fraction (1/year) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #79 C | Annual residential growth fraction (1/year) = 0.02 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #80 A | Annual residential PV generation (MW*Hour/year) = Residential PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #81 A | Annual thermal network costs ($) = Annual coal costs+Annual gas CC costs+Annual gas CT costs Present In 1 View:Used ByFeedback Loops: 5,390 (32.8%) (+) 2,304 [22,30] (-) 2,296 [22,30] (?) 790 [26,30] |
SWIS2050(2R) | #82 A | Annual thermal network undergeneration (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum thermal network undergeneration , 0) Present In 1 View:Used By |
SWIS2050(2R) | #83 A | Annual total demand met by customers (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by customers , 0) Present In 2 Views:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #84 A | Annual USBS costs ($/year) = SAMPLE IF TRUE(Hour of the year=0, Network battery storage capacity*Utility scale battery storage hourly costs per MWh*Hours per year*365/12,0) Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #85 A | Annual wave costs ($) = Annual wave generation*Wave hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #86 A | Annual wave generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wave generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #87 A | Annual wind costs ($) = Annual wind generation*Wind hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #88 A | Annual wind generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wind generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #89 L | Ave annual residential demand per customer (kWh/customer/year) = ∫Chgs in demand per customer dt + 5680.0 Present In 4 Views:Used By
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SWIS2050(2R) | #90 L | Ave comm PV array (kW/system) = ∫Chg in ave comm PV array dt + 99.626 Present In 3 Views:Used By
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SWIS2050(2R) | #91 A | Ave hourly commercial demand (kWh/(Hour*customer)) = Annual demand per comm customer/Hours per year/(365/12)/"GW/kW" Present In 4 Views:Used By
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SWIS2050(2R) | #92 A | Ave hourly large customer demand (kWh/(Hour*customer)) = Annual demand per large customer/Hours per year/(365/12)/"GW/kW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #93 A | Ave hourly residential demand (kWh/(Hour*customer)) = Ave annual residential demand per customer/Hours per year/(365/12) Present In 5 Views:Used By
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SWIS2050(2R) | #94 L | Ave resi PV array (kW/system) = ∫Chg in ave resi PV array dt + 2.9 Present In 3 Views:Used By
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SWIS2050(2R) | #95 A | Average 2050 renewables costs per MWh ($/(MW*Hour)) = ("2050 Biogas costs per MWh*"+"2050 LSS costs per MWh*"+"2050 Wave costs per MWh*"+"2050 Wind costs per MWh*") Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #96 A | B-Ave/Wind (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wind costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #97 C | Battery storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #98 F,A | Biogas additions (MW/Hour) = Biogas replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #99 L | Biogas capacity (MW) = ∫Biogas additions-Biogas retirements dt + 21.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 400 [10,30] (-) 404 [2,30] (?) 210 [24,30] |
SWIS2050(2R) | #100 C | Biogas capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #101 C | Biogas capex ($/MW) = 3e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #102 C | Biogas CF (Dmnl) = 0.8 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #103 C | Biogas FOM ($/MW/year) = 150000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #104 A | Biogas generation (MW) = Biogas capacity*Biogas CF Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 400 [10,30] (-) 403 [14,30] (?) 210 [24,30] |
SWIS2050(2R) | #105 A | Biogas hourly capex ($/MW/Hour) = Biogas capex*Biogas PMT/(Hours per year*365/12)/Biogas CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #106 A | Biogas hourly costs per MWh ($/(MW*Hour)) = Biogas hourly capex+Biogas VOM+(Biogas FOM/Biogas CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #107 A | Biogas hourly operating costs ($/Hour) = Biogas capacity*Biogas hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #108 C | Biogas life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #109 C | Biogas PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #110 A | Biogas replacements (MW/Hour) = Total retired thermal generation*Biogas share by cost/Biogas CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #111 F,A | Biogas retirements (MW/Hour) = (Biogas capacity-(Biogas capacity*Renewables adjustments))/(Biogas capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 213 [10,30] (-) 225 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #112 C | Biogas share (Dmnl) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #113 A | Biogas share by cost (Dmnl) = "D-Ave/Bio"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #114 C | Biogas VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #115 A | C-Ave/Wave (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wave costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #116 C | Calendar year (year ) = TIME BASE (2015,0.00347222) Description: 2015 means the 2015/16 year as in the 2017 ESOO for the WEM Present In 2 Views:Used By
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SWIS2050(2R) | #117 F,A | Chg in ave comm PV array (kW/system/Hour) = (Indicated comm PV array-Ave comm PV array)/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #118 F,A | Chg in ave resi PV array (kW/system/Hour) = (Indicated resi PV array-Ave resi PV array)/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #119 F,A | Chg in coal fuel cost ($/GJ/Hour) = ("2050 unit cost of coal fuel"-Coal fuel unit cost)/(Coal fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #120 F,A | Chg in comm FIT fraction (1/Hour) = ("2050 comm FIT fraction"-Commercial FIT fraction)/Comm FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #121 F,A | Chg in comm storage systems (Systems/Hour) = (Commercial PV systems-Commercial storage systems)*Comm storage penetration/(Comm PV purchase adj time*Hours per year)*Comm storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #122 F,A | Chg in commercial customers (Customers/Hour) = Commercial customers*Annual comm customer growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #123 F,A | Chg in commercial PV systems (Systems/Hour) = (Max comm PV systems-Commercial PV systems)*Comm PV additions/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 1,754 (10.7%) (+) 846 [20,30] (-) 857 [2,30] (?) 51 [27,30] |
SWIS2050(2R) | #124 F,A | Chg in gas fuel cost ($/(Hour*GJ)) = ("2050 unit cost of gas fuel"-Gas fuel unit cost)/(Gas fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #125 F,A | Chg in large customers (Customers/Hour) = Large customers*Annual large customer growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #126 F,A | Chg in network storage capacity (MW) = IF THEN ELSE(Network storage SoC>Network storage capacity, Network storage SoC/"1 hour", 0) Present In 1 View:Used ByFeedback Loops: 5,540 (33.7%) (+) 2,020 [2,30] (-) 2,060 [3,30] (?) 1,460 [19,30] |
SWIS2050(2R) | #127 F,A | Chg in resi FIT fraction (1/Hour) = ("2050 residential FIT fraction"-Residential FIT fraction)/Resi FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #128 F,A | Chg in resi solar PV systems (Systems/Hour) = (Max resi PV systems-Residential PV systems)*Resi PV additions/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used By
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SWIS2050(2R) | #129 F,A | Chg in resi storage systems (Systems/Hour) = (Residential PV systems-Residential storage systems)*Resi storage penetration/(Resi PV purchase adj time*Hours per year)*Resi storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #130 F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) = ("2050 unit cost of residential solar PV"-Unit cost of residential solar PV)/Resi solar adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #131 F,A | Chg in unit cost of resi storage ($/kWh/Hour) = ("2050 unit cost of residential storage"-Unit cost of residential storage)/Resi solar adjustment time Present In 1 View:Used By
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SWIS2050(2R) | #132 F,A | Chg in wave capex ($/(MW*Hour)) = (Wave capex 2050-Wave capex)/(Wave capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #133 F,A | Chg in wind capex ($/MW/Hour) = (Onshore wind capex 2050-Wind capex)/(Wind capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #134 F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) = Ave annual residential demand per customer*Annual residential demand growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #135 F,A | Chgs to energy intensity (GWh/$m/year/Hour) = ("2050 energy intensity"-Energy intensity)/EI adjustment period/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #136 F,A | Chgs to GSP ($m/Hour) = GSP*GSP annual growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #137 A | Coal % (Dmnl) = ZIDZ( Coal generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #138 F,A | Coal additions (MW/Hour) = ((Coal capacity*Required thermal network additions)-Coal capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,372 (8.4%) (+) 275 [6,30] (-) 284 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #139 A | Coal available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=4:OR:MODULO( Month of the year, 12)=8,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #140 L | Coal capacity (MW) = ∫Coal additions-Coal retirement dt + Initial coal capacity Present In 2 Views:Used By
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SWIS2050(2R) | #141 C | Coal capex ($/MW) = 2.88e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #142 C | Coal cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #143 F,A | Coal emission out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #144 F,A | Coal emissions in (tCO2e) = Hourly coal emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #145 C | Coal emissions per MWh (tCO2e/MW) = 0.743 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #146 C | Coal FOM ($/MW/year) = 50500 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #147 C | Coal fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #148 A | Coal fuel costs ($/(MW*Hour)) = Coal fuel unit cost*"GJ/MWh"/Coal TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #149 L | Coal fuel unit cost ($/GJ) = ∫Chg in coal fuel cost dt + Initial coal fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #150 A | Coal generation (MW) = IF THEN ELSE(Network thermal load<Min coal generation capacity, 0 , IF THEN ELSE(Network thermal load<Max coal generation capacity, Network thermal load*Coal available hours , Max coal generation capacity*Coal available hours) ) Present In 2 Views:Used By
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SWIS2050(2R) | #151 A | Coal hourly capex ($/(MW*Hour)) = (Coal capex*Coal PMT)/(Hours per year*365/12)/Coal operating CF Present In 1 View:Used ByFeedback Loops: 304 (1.9%) (+) 128 [24,30] (-) 132 [24,30] (?) 44 [28,30] |
SWIS2050(2R) | #152 A | Coal hourly costs per MWh ($/(MW*Hour)) = Coal hourly capex+(Coal FOM/Coal operating CF/(Hours per year*365/12))+Coal VOM+Coal fuel costs Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #153 A | Coal hourly operating costs ($/Hour) = Coal capacity*Coal hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #154 A | Coal operating CF (Dmnl) = XIDZ( Cumulative coal operating hours,Time,(Nominal Coal CF)) Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #155 F,A | Coal operating hours (Dmnl) = Coal generation/Coal capacity Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #156 C | Coal phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #157 C | Coal PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #159 A | Coal retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Coal phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #160 C | Coal TE (Dmnl) = 0.415 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #161 C | Coal VOM ($/(MW*Hour)) = 4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #162 A,T | Comm demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Load profiles' , 'r' , 'ai5' )
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #163 C | Comm FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #164 A | Comm import fraction (Dmnl) = "GF-comm PV"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #165 A | Comm PV additions (Dmnl) = "GF-solar PV penetration"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #166 C | Comm PV purchase adj time (year) = 2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #167 A | Comm solar exports (kW) = Excess comm generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #168 A | Comm solar imports (kW) = Comm storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #169 A,T | Comm solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Solar resource' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #170 C | Comm solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #171 A | Comm storage capacity per system (Hour*kW) = Ave comm PV array*Optimum comm storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #172 A | Comm storage capex ($/customer) = Commercial SCM*Ave hourly commercial demand*Optimum comm storage hours*Unit cost of comm battery storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #173 F,A | Comm storage charge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")+Excess comm generation<=(Comm storage capacity per system/"1 hour"), Excess comm generation , (Comm storage capacity per system-Comm storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #174 A | Comm storage demand (kW) = IF THEN ELSE(Net comm PV production<=0, -Net comm PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #175 F,A | Comm storage discharge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")-Comm storage demand>=Minimum private storage discharge*(Comm storage capacity per system/"1 hour"), Comm storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #176 A | Comm storage export fraction (Dmnl) = "GF- comm storage exports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #177 A | Comm storage exports (kW) = Excess comm generation-Comm storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #178 A | Comm storage import fraction (Dmnl) = "GF- comm storage imports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #179 A | Comm storage imports (kW) = Comm storage demand-Comm storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #180 F,A | Comm storage losses (kW) = Comm storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #181 A | Comm storage penetration (Dmnl) = "GF-solar PV penetration"(Commercial storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #182 L | Comm storage per system (kW*Hours) = ∫(Comm storage charge-Comm storage discharge)-Comm storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 702 (4.3%) (+) 262 [3,30] (-) 269 [2,30] (?) 171 [27,30] |
SWIS2050(2R) | #183 C | Comm storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #184 L | Commercial customers (Customers) = ∫Chg in commercial customers dt + 75000.0 Description: Based on ERA figure of 1.035m SWIS customers less 960,000 resi customers in ESO methodology report Present In 3 Views:Used By
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SWIS2050(2R) | #185 A | Commercial demand met by solar PV (kW) = min(Commercial solar generation,Commercial hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #186 A | Commercial FIT ($/kWh) = Commercial tariff*Commercial FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #187 L | Commercial FIT fraction (Dmnl) = ∫Chg in comm FIT fraction dt + Initial comm FIT fraction Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #188 A | Commercial hourly demand (kW) = Ave hourly commercial demand*"1 customer"*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #189 A | Commercial PV capacity (MW) = Ave comm PV array*Commercial PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #190 A | Commercial PV payback (Years) = CommPV capex/Annual comm PV savings*"1 system/ customer" Present In 2 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #191 A | Commercial PV penetration (Dmnl) = Commercial PV systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #192 L | Commercial PV systems (Systems) = ∫Chg in commercial PV systems dt + 600.0 Present In 2 Views:Used By
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SWIS2050(2R) | #193 A | Commercial SCM (Dmnl) = Ave comm PV array/Ave hourly commercial demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #194 A | Commercial solar generation (kW) = Ave comm PV array*"1 system"*Private PV capacity factor*Comm solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #195 C | Commercial solar PV fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #196 A | Commercial storage capacity (Hour*MW) = Comm storage capacity per system*Commercial storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #197 C | Commercial storage fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #198 A | Commercial storage payback (Years) = min(Comm storage capex/Addtional comm storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #199 A | Commercial storage penetration (Dmnl) = Commercial storage systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #200 A | Commercial storage savings ($/(customer*year)) = (Annual demand per comm customer/"GW/kW")*((Commercial tariff*(1-Comm storage import fraction))+(Comm storage export fraction*Commercial FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #201 L | Commercial storage systems (Systems) = ∫Chg in comm storage systems dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #202 A | Commercial tariff ($/kWh) = Initial commercial tariff*Network generation tariff multiplier Present In 2 Views:Used By
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SWIS2050(2R) | #203 A | CommPV capex ($/system) = Ave comm PV array*Unit cost of commercial solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #204 C | Correction factor (Dmnl) = 1.01 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #205 L | Cum coal generation (MW*Hour) = ∫Hourly CG in-Hourly CG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,609 (9.8%) (+) 589 [15,30] (-) 596 [2,30] (?) 424 [14,30] |
SWIS2050(2R) | #206 L | Cum CT generation (MW* Hour) = ∫Hourly GCT in-Hourly GCT out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 6,103 (37.2%) (+) 2,295 [15,30] (-) 2,328 [2,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #207 L | Cum gas CC generation (MW* Hour) = ∫Hourly GCC in-Hourly GCC out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 2,893 (17.6%) (+) 1,064 [15,30] (-) 1,085 [2,30] (?) 744 [14,30] |
SWIS2050(2R) | #208 L | Cum thermal network undergeneration (MW*Hour) = ∫Hourly TNU in-Hourly TNU out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #209 L | Cumulative biogas generation (MW*Hour) = ∫Hourly BG in-Hourly BG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 126 [10,30] (-) 138 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #210 L | Cumulative coal emissions (Hour*tCO2e) = ∫Coal emissions in-Coal emission out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #211 L | Cumulative coal operating hours (Hour) = ∫Coal operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #212 L | Cumulative demand met by customers (MW*Hour) = ∫Hourly demand met in-Hourly demand met out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 233 (1.4%) (+) 30 [27,30] (-) 29 [2,30] (?) 174 [27,30] |
SWIS2050(2R) | #213 L | Cumulative demand met by network renewables (MW*Hour) = ∫DNR in-DNR out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #214 L | Cumulative emissions (tCO2e*Hour) = ∫Additive annual emissions dt + 0.0 Present In 1 View:Used By |
SWIS2050(2R) | #215 L | Cumulative gas CC emissions (Hour*tCO2e) = ∫Gas CC emissions in-Gas CC emissions out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #216 L | Cumulative gas CC operating hours (Hour) = ∫Gas CC operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #217 L | Cumulative gas CT emissions (Hour*tCO2e) = ∫Gas CT emissions in-Gas CT emissions out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #218 L | Cumulative gas CT operating hours (Hours) = ∫Gas CT operating hours dt + 0.0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #219 L | Cumulative generation curtailed (MW*Hour) = ∫Gen curtailed in-Gen curtailed out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #220 L | Cumulative LS solar generation (MW* Hour) = ∫Hourly LSS in-Hourly LSS out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #221 L | Cumulative network load (MW*Hour) = ∫Hourly NL in-Hourly NL out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #222 L | Cumulative network storage discharge (Hour*MW) = ∫NS discharge in-NS discharge out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #223 L | Cumulative network storage losses (MW*Hour) = ∫Hourly NS losses in-Hourly NS losses out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #224 L | Cumulative network thermal load (MW*Hours) = ∫Hourly NTL in-Hourly NTL out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,669 (10.2%) (+) 422 [18,30] (-) 434 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #225 L | Cumulative wave generation (MW* Hour) = ∫Hourly WaveG in-Hourly WaveG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #226 L | Cumulative wind generation (MW* Hour) = ∫Hourly WG in-Hourly WG out dt + 0.0 Present In 1 View:Used ByFeedback Loops: 369 (2.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 368 [10,30] |
SWIS2050(2R) | #227 A | D-Ave/Bio (Dmnl) = Average 2050 renewables costs per MWh/"2050 Biogas costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #228 A | Demand met by network renewables (MW) = IF THEN ELSE(Total network load<=0, 0 , IF THEN ELSE( Total network load<Network renewables generation, Total network load , Network renewables generation ) ) Present In 1 View:Used ByFeedback Loops: 270 (1.6%) (+) 60 [24,30] (-) 70 [14,30] (?) 140 [14,30] |
SWIS2050(2R) | #229 C,F | Diesel additions (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #230 L | Diesel capacity (MW) = ∫Diesel additions-Diesel retirements dt + 132.0 Present In 1 View:Used By |
SWIS2050(2R) | #231 C,F | Diesel retirements (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #232 F,A | DNR in (MW) = Demand met by network renewables*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #233 F,A | DNR out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative demand met by network renewables/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #234 C | EI adjustment period (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #235 L | Energy intensity (GWh/$m/year) = ∫Chgs to energy intensity dt + Initial energy intensity Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #236 C | Energy intensity multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #237 A | Excess comm generation (kW) = IF THEN ELSE(Net comm PV production>0, Net comm PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
SWIS2050(2R) | #238 A | Excess resi generation (kW) = IF THEN ELSE(Net resi PV production>0, Net resi PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
SWIS2050(2R) | #240 F,A | Gas CC additions (MW/Hour) = (Gas CC capacity*Required thermal network additions-Gas CC capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,012 (6.2%) (+) 203 [6,30] (-) 206 [2,30] (?) 603 [17,30] |
SWIS2050(2R) | #241 A | Gas CC available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=3,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #242 L | Gas CC capacity (MW) = ∫Gas CC additions-Gas CC retirement dt + Initial gas CC capacity Present In 2 Views:Used By
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SWIS2050(2R) | #243 C | Gas CC capex ($/MW) = 1.092e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #244 F,A | Gas CC emissions in (tCO2e) = Hourly gas CC emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #245 F,A | Gas CC emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #246 C | Gas CC emissions per MWh (tCO2e/(MW)) = 0.349 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #247 C | Gas CC FOM ($/MW/year) = 10000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #248 A | Gas CC fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CC TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #249 A | Gas CC generation (MW) = IF THEN ELSE((Network thermal load-Coal generation)<Min gas CC generation capacity, 0,IF THEN ELSE((Network thermal load-Coal generation)<Max gas CC generation capacity, (Network thermal load-Coal generation)*Gas CC available hours , Max gas CC generation capacity*Gas CC available hours)) Present In 2 Views:Used By
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SWIS2050(2R) | #250 A | Gas CC hourly capex ($/MW/Hour) = (Gas CC capex*Gas CC PMT)/(Hours per year*365/12)/Gas CC operating CF Present In 1 View:Used ByFeedback Loops: 502 (3.1%) (+) 212 [24,30] (-) 218 [24,30] (?) 72 [28,30] |
SWIS2050(2R) | #251 A | Gas CC hourly costs per MWh ($/(MW*Hour)) = Gas CC hourly capex+Gas CC VOM+((Gas CC FOM/Gas CC operating CF)/(Hours per year*365/12))+Gas CC fuel costs Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #252 A | Gas CC hourly operating costs ($/Hour) = Gas CC capacity*Gas CC hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #253 A | Gas CC operating CF (Dmnl) = XIDZ( Cumulative gas CC operating hours,Time,Nominal Gas CC CF) Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #254 F,A | Gas CC operating hours (Dmnl) = Gas CC generation/Gas CC capacity Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #255 C | Gas CC phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #256 C | Gas CC PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #258 A | Gas CC retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CC phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #259 C | Gas CC TE (Dmnl) = 0.506 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #260 C | Gas CC VOM ($/(MW*Hour)) = 7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #261 A | Gas CC% (Dmnl) = ZIDZ(Gas CC generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #262 C | Gas cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #263 A | Gas CT % (Dmnl) = ZIDZ(Gas CT generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #264 F,A | Gas CT additions (MW/Hour) = (Gas CT capacity*Required thermal network additions-Gas CT capacity)/(Thermal plant construction time*Hours per year)+(Addtl Gas CT reqd/"1 hour") Present In 1 View:Used By
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SWIS2050(2R) | #265 L | Gas CT capacity (MW) = ∫Gas CT additions-Gas CT retirements dt + Initial gas CT capacity Description: Assume diesel capacity (132 MW) is added Present In 2 Views:Used By
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SWIS2050(2R) | #266 C | Gas CT capex ($/MW) = 725000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #267 C | Gas CT emission per MWh (tCO2e/MW) = 0.515 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #268 F,A | Gas CT emissions in (tCO2e) = Hourly gas CT emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #269 F,A | Gas CT emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CT emissions/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #270 C | Gas CT FOM ($/MW/year) = 4000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #271 A | Gas CT fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CT TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #272 A | Gas CT generation (MW) = min((Network thermal load-Coal generation-Gas CC generation),Gas CT capacity) Present In 2 Views:Used ByFeedback Loops: 6,857 (41.7%) (+) 2,381 [15,30] (-) 2,408 [7,30] (?) 2,068 [14,30] |
SWIS2050(2R) | #273 A | Gas CT hourly capex ($/MW/Hour) = Gas CT capex*Gas CT PMT/(Hours per year*365/12)/Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #274 A | Gas CT hourly costs per MWh ($/(MW*Hour)) = Gas CT hourly capex+Gas CT VOM+(Gas CT FOM/Nominal Gas CT CF/(Hours per year*365/12))+Gas CT fuel costs Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #275 A | Gas CT hourly operating costs ($/Hour) = Gas CT capacity*Gas CT hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #276 A | Gas CT operating CF (Dmnl) = XIDZ( Cumulative gas CT operating hours,Time,Nominal Gas CT CF) Present In 2 Views:Used By |
SWIS2050(2R) | #277 F,A | Gas CT operating hours (Dmnl) = Gas CT generation/Gas CT capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #278 C | Gas CT phase out period (Years) = 18000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #279 C | Gas CT PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #280 A | Gas CT retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CT phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
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SWIS2050(2R) | #282 C | Gas CT TE (Dmnl) = 0.346 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #283 C | Gas CT VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #284 C | Gas fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #285 L | Gas fuel unit cost ($/GJ) = ∫Chg in gas fuel cost dt + Initial gas fuel cost Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #286 F,A | Gen curtailed in (MW) = Generation curtailed*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #287 F,A | Gen curtailed out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative generation curtailed/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #288 A | Generation curtailed (MW) = -Negative network load-Network storage charge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #289 C | Generation fraction of tariff (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #290 A,T | GF- comm array (kW/system) "GF- comm array"([(0,0)-(30,300)],(0,265),(3.30275,178.947),(7.157,100),(12.5688,40.7895),(19.63,6),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #291 A,T | GF- comm storage exports (Dmnl) "GF- comm storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #292 A,T | GF- comm storage imports (Dmnl) "GF- comm storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #293 A,T | GF- resi array (kW/system) "GF- resi array"([(0,0)-(30,10)],(0,7.75),(1,7),(4.31193,4.91228),(9.309,2.9),(13.7615,1.66667),(19.633,0.48),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #294 A,T | GF- resi storage exports (Dmnl) "GF- resi storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #295 A,T | GF- resi storage imports (Dmnl) "GF- resi storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #296 A,T | GF- storage (Hours) "GF- storage"([(0,0)-(20,10)],(0,0),(1,0),(2,1),(3,2),(4,3),(5,3),(7,3),(9,2),(10,1.5),(20,1))
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #297 A,T | GF-comm PV (Dmnl) "GF-comm PV"([(0,0.5)-(20,1)],(0,1),(1,0.741),(2,0.657),(3,0.598),(4,0.572),(5,0.556),(7,0.536),(9,0.525),(20,0.5))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #299 A,T | GF-resi PV (Dmnl) "GF-resi PV"([(0,0.4)-(10,1)],(0,1),(1,0.799),(1.34557,0.744737),(2,0.682),(3,0.629),(5,0.583),(7,0.56),(9,0.547),(10,0.545))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #300 A,T | GF-solar PV penetration (Dmnl) "GF-solar PV penetration"([(0,0)-(30,1)],(0,1),(1.00917,0.644737),(2,0.39),(3,0.23),(4,0.13),(5,0.08),(6,0.062),(8,0.05),(30,0),(100,0))
Description: Modified on 24 Jan to reflect new payback analysis
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #301 C | GJ/MWh (GJ/(MW*Hour)) = 3.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #302 L | GSP ($m) = ∫Chgs to GSP dt + 239581.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #303 C | GSP annual growth fraction (1/year) = 0.033 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #304 C | GW/kW (GWh/kWh) = 1e-06 Present In 3 Views:Used By
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SWIS2050(2R) | #305 A | Hour of the day (Hour) = MODULO(Time, 24 ) Present In 2 Views:Used By |
SWIS2050(2R) | #306 A | Hour of the year (Hour) = MODULO(Time, 288 ) Present In 7 Views:
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SWIS2050(2R) | #307 F,A | Hourly BG in (MW) = Biogas generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #308 F,A | Hourly BG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative biogas generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #309 F,A | Hourly CG in (MW) = Coal generation*365/12 Present In 1 View:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #310 F,A | Hourly CG out (MW) = IF THEN ELSE(Hour of the year=0, Cum coal generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #311 A | Hourly coal emissions (tCO2e) = Coal generation*Coal emissions per MWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #312 A | Hourly demand balance (MW) = Net hourly network demand-Hourly network generation plus storage discharges Present In 2 Views:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #313 F,A | Hourly demand met in (MW) = Total hourly demand met by customers*365/12 Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #314 F,A | Hourly demand met out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative demand met by customers/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #315 A | Hourly gas CC emissions (tCO2e) = Gas CC emissions per MWh*Gas CC generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #316 A | Hourly gas CT emissions (tCO2e) = Gas CT emission per MWh*Gas CT generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #317 F,A | Hourly GCC in (MW) = Gas CC generation*365/12 Present In 1 View:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #318 F,A | Hourly GCC out (MW) = IF THEN ELSE(Hour of the year=0, Cum gas CC generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #319 F,A | Hourly GCT in (MW) = Gas CT generation*365/12 Present In 1 View:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #320 F,A | Hourly GCT out (MW) = IF THEN ELSE(Hour of the year=0, Cum CT generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #321 F,A | Hourly LSS in (MW) = LS solar PV generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #322 F,A | Hourly LSS out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative LS solar generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #323 A | Hourly network generation plus storage discharges (MW) = Network storage discharge+Total network thermal generation+Demand met by network renewables Present In 1 View:Used ByFeedback Loops: 2,875 (17.5%) (+) 558 [15,30] (-) 564 [7,30] (?) 1,753 [14,30] |
SWIS2050(2R) | #324 F,A | Hourly NL in (MW) = Total network load*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #325 F,A | Hourly NL out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative network load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #326 F,A | Hourly NS losses in (MW) = Network storage losses*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #327 F,A | Hourly NS losses out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage losses/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #328 F,A | Hourly NTL in (MW) = Network thermal load*365/12 Present In 1 View:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #329 F,A | Hourly NTL out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network thermal load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #330 F,A | Hourly TNU in (MW) = Thermal network undergeneration*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #331 F,A | Hourly TNU out (MW) = IF THEN ELSE(Hour of the year=0, Cum thermal network undergeneration/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #332 F,A | Hourly WaveG in (MW) = Wave generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #333 F,A | Hourly WaveG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wave generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #334 F,A | Hourly WG in (MW) = Wind generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #335 F,A | Hourly WG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wind generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #336 C | Hours per year (Hours/year) = 288 Present In 7 Views:
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SWIS2050(2R) | #337 A | Indicated comm PV array (kW/system) = "GF- comm array"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #338 A | Indicated resi PV array (kW/system) = "GF- resi array"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #339 A | Industry energy demand (GWh/year) = Energy intensity*GSP Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #340 A | Initial annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Time=0, Cumulative network thermal load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #341 LI,C | Initial coal capacity (MW) = 1778 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #342 LI,C | Initial coal fuel cost ($/GJ) = 2.75 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #343 LI,A | Initial comm FIT fraction (Dmnl) = Initial commercial FIT/Initial commercial tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #344 C | Initial commercial FIT ($/kWh) = 0.0713 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #345 C | Initial commercial tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #346 LI,C | Initial energy intensity (GWh/$m/year) = 0.055992 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #347 LI,C | Initial gas CC capacity (MW) = 2058 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #348 LI,C | Initial gas CT capacity (MW) = 1056+132 Present In 1 View:Used By
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SWIS2050(2R) | #349 LI,C | Initial gas fuel cost ($/GJ) = 12.3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #350 C | Initial large customer tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #351 C | Initial network unit cost ($/(MW*Hour)) = 100 Description: Year 1 result Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #352 C | Initial residential FIT ($/kWh) = 0.0713 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #353 LI,A | Initial residential FIT fraction (Dmnl) = Initial residential FIT/Initial residential tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #354 C | Initial residential tariff ($/kWh) = 0.26 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #355 A | Initial thermal plant (MW) = Initial coal capacity+Initial gas CC capacity+Initial gas CT capacity Present In 1 View:Used By |
SWIS2050(2R) | #357 C | kW/MW (kW/MW) = 1000 Present In 3 Views:Used By
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SWIS2050(2R) | #358 C | kWh (kWh/(kW*Hour)) = 1 Present In 3 Views:Used By
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SWIS2050(2R) | #359 C | kWh/MWh (kWh/(MW*Hour)) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #360 A | Large customer hourly demand (kW/customer) = Ave hourly large customer demand*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #361 A | Large customer tariff ($/kWh) = Initial large customer tariff*Network generation tariff multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #362 L | Large customers (Customers) = ∫Chg in large customers dt + 9.0 Present In 2 Views:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #363 F,A | LS solar additions (MW/Hour) = LSS replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #364 A | LS solar capex ($/MW) = {3.86e+006}Unit cost of utility scale solar PV*"kW/MW" Description: Assume single axisAETA 2012 cost is 3860 $/kWAcil Allen cost is 2900 $/kW Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #365 C | LS solar CF (Dmnl) = 0.23 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #366 C | LS solar FOM ($/MW/year) = 30000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #367 A | LS solar hourly capex ($/MW/Hour) = LS solar capex*LS solar PMT/(Hours per year*365/12)/LS solar CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #368 A | LS solar hourly costs per MWh ($/(MW*Hour)) = LS solar hourly capex+LS solar VOM+(LS solar FOM/LS solar CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #369 A | LS solar hourly operating costs ($/Hour) = LS Solar PV capacity*LS solar hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #370 C | LS solar life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #372 C | LS solar PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #373 L | LS Solar PV capacity (MW) = ∫LS solar additions-LS solar retirements dt + 10.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #374 A | LS solar PV generation (MW) = LS Solar PV capacity*LS solar CF*LS solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #375 F,A | LS solar retirements (MW/Hour) = (LS Solar PV capacity-(LS Solar PV capacity*Renewables adjustments))/(Solar capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #376 C | LS solar VOM ($/(MW*Hour)) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #377 A | LSS replacements (MW/Hour) = Total retired thermal generation*LSS share by cost/LS solar CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #378 C | LSS share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #379 A | LSS share by cost (Dmnl) = "A-Ave/LSS"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #380 A | Max coal generation capacity (MW) = 0.72*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #381 A | Max comm PV systems (Systems) = Commercial customers*Maximum comm PV generation*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #382 A | Max gas CC generation capacity (MW) = 0.9*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #383 A | Max resi PV systems (Systems) = Maximum resi PV penetration*Residential customers*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #384 C | Maximum comm PV generation (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #385 A | Maximum network storage (Hour*MW) = (Annual private PV generation+Annual network renewables generation)/Network generation storage ratio Present In 1 View:Used ByFeedback Loops: 1,720 (10.5%) (+) 559 [21,30] (-) 597 [20,30] (?) 564 [20,30] |
SWIS2050(2R) | #386 C | Maximum resi PV penetration (Dmnl) = 0.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #387 A | Min coal generation capacity (MW) = 0.67*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #388 A | Min gas CC generation capacity (MW) = 0.2*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #389 C | Minimum private storage discharge (Dmnl) = 0.2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #390 A | Month of the year (Dmnl) = time lookup (Hour of the year/"1 hour") Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #391 C | MW/GW (MW*Hour/GWh) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #393 A | Negative network load (MW) = min((Total network load-Network renewables generation),0) Present In 1 View:Used ByFeedback Loops: 7,080 (43.1%) (+) 2,533 [18,30] (-) 2,547 [17,30] (?) 2,000 [17,30] |
SWIS2050(2R) | #394 A | Net annual network demand (Hour*MW) = Total annual demand in MWh-Annual total demand met by customers Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #395 A | Net comm PV production (kW) = Commercial solar generation-Commercial hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #396 A | Net hourly network demand (MW) = Total hourly demand-Total hourly demand met by customers Present In 1 View:Used ByFeedback Loops: 170 (1.0%) (+) 60 [24,30] (-) 54 [24,30] (?) 56 [28,30] |
SWIS2050(2R) | #397 A | Net private storage hours (Hour) = Total private storage capacity/Total private PV capacity Present In 1 View:Used By |
SWIS2050(2R) | #398 A | Net resi PV production (kW) = Residential solar generation-Residential hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #399 F,A | Net residential customer growth (Customers/Hour) = Residential customers*Annual residential growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #400 A | Network battery storage capacity (MW*Hour) = Network storage capacity*"PHES - battery split" Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #401 C | Network generation storage ratio (Dmnl) = 750 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #402 A | Network generation tariff multiplier (Dmnl) = IF THEN ELSE(Tariff multiplier switch<>0, ((Network unit cost/Initial network unit cost-1)*Generation fraction of tariff)+1,1) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #403 A | Network load from comm solar premises (kW) = Comm solar imports-Comm solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #404 A | Network load from comm storage premises (kW) = Comm storage imports-Comm storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #405 A | Network load from resi solar only home (kW) = Resi solar imports-Resi solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #406 A | Network load from resi storage home (kW) = Resi storage imports-Resi storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #407 A | Network renewables generation (MW) = LS solar PV generation+Wave generation+Wind generation+Biogas generation Present In 2 Views:Used ByFeedback Loops: 2,580 (15.7%) (+) 274 [15,30] (-) 266 [14,30] (?) 2,040 [14,30] |
SWIS2050(2R) | #408 L | Network storage capacity (MW*Hour) = ∫Chg in network storage capacity-Swap dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #409 F,A | Network storage charge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Negative network load<=(Maximum network storage/"1 hour"), -Negative network load*Network storage switch,0) Present In 1 View:Used ByFeedback Loops: 8,802 (53.6%) (+) 3,093 [2,30] (-) 3,145 [3,30] (?) 2,564 [17,30] |
SWIS2050(2R) | #410 F,A | Network storage discharge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Positive network load<(Network storage minimum discharge level*Network storage capacity/"1 hour"),0,Positive network load) Present In 1 View:Used By
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SWIS2050(2R) | #411 C | Network storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #412 F,A | Network storage losses (MW) = Network storage charge*Network storage loss fraction Present In 1 View:Used ByFeedback Loops: 3,821 (23.3%) (+) 1,369 [18,30] (-) 1,375 [3,30] (?) 1,077 [18,30] |
SWIS2050(2R) | #413 C | Network storage minimum discharge level (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #414 L | Network storage SoC (MW*Hour) = ∫(Network storage charge-Network storage discharge)-Network storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 9,349 (56.9%) (+) 3,290 [2,30] (-) 3,355 [2,30] (?) 2,704 [17,30] |
SWIS2050(2R) | #415 C | Network storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #416 A | Network thermal load (MW) = Positive network load-Network storage discharge Present In 1 View:Used By
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SWIS2050(2R) | #417 A | Network unit cost ($/(MW*Hour)) = XIDZ( Annual network generation and storage costs,Annual network generation,Initial network unit cost) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #418 A | Nominal annual thermal generation capacity (MW*Hour/year) = Nominal coal annual generation capacity+Nominal gas CC annual generation capacity+Nominal gas CT annual generation capacity Present In 1 View:Used ByFeedback Loops: 967 (5.9%) (+) 123 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #419 A | Nominal coal annual generation capacity (MW*Hour/year) = Coal capacity*Nominal Coal CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #420 C | Nominal Coal CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #421 C | Nominal coal life (Years) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #422 A | Nominal gas CC annual generation capacity (MW*Hour/year) = Gas CC capacity*Nominal Gas CC CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #423 C | Nominal Gas CC CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #424 C | Nominal gas CC life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #425 A | Nominal gas CT annual generation capacity (MW*Hour/year) = Gas CT capacity*Nominal Gas CT CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 965 (5.9%) (+) 121 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #426 C | Nominal Gas CT CF (Dmnl) = 0.1 Present In 3 Views:Used By
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SWIS2050(2R) | #427 C | Nominal gas CT life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #428 A | Non-solar comm premises (Dmnl) = ((Commercial customers*"1 system/ customer")-Commercial PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #429 A | Non-solar homes (Dmnl) = ((Residential customers*"1 system/ customer")-Residential PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #430 A | Normal annual comm electricity charges ($/(year*customer)) = Annual demand per comm customer*Commercial tariff/"GW/kW" Present In 1 View:Used By |
SWIS2050(2R) | #431 A | Normal annual large cust electricity charges ($/(year*customer)) = Annual demand per large customer/"GW/kW"*Large customer tariff Present In 1 View:Used By |
SWIS2050(2R) | #432 A | Normal annual resi electricity charges ($/(year*customer)) = Ave annual residential demand per customer*Residential tariff Present In 1 View:Used By |
SWIS2050(2R) | #433 F,A | NS discharge in (MW) = Network storage discharge*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #434 F,A | NS discharge out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage discharge/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #435 C | Onshore wind capex 2050 ($/MW) = 2.024e+06 Description: 80% of initial costs - LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #436 A | Optimum comm storage hours (Hours) = "GF- storage"(Commercial SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #437 A | Optimum resi storage hours (Hours) = "GF- storage"(Residential SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #438 C | PHES - battery split (Dmnl) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #439 A | PHES capacity (MW*Hour) = "PHES - battery split"*Network storage capacity Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #440 C | PHES capex per MWh ($/(MW*Hour)) = 200000 Description: LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #441 A | PHES FOM ($/(MW*Hour*Hour)) = PHES capex per MWh*"PHES opex %"/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #442 A | PHES hourly capex ($/(MW*Hour*Hour)) = PHES capex per MWh*PHES PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #443 A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) = PHES hourly capex+PHES FOM Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #444 C | PHES life (year) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #445 C | PHES opex % (1/year) = 0.015 Description: Guesstimate Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #446 C | PHES PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #447 A | Positive network load (MW) = max(Total network load-Network renewables generation,0) Present In 1 View:Used ByFeedback Loops: 6,864 (41.8%) (+) 2,379 [15,30] (-) 2,395 [14,30] (?) 2,090 [14,30] |
SWIS2050(2R) | #448 C | Private PV capacity factor (Dmnl) = 0.183506 Present In 4 Views:Used By
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SWIS2050(2R) | #449 A | Renewables adjustments (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,1,Annual demand balance ratio) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #450 A | Renewables total share (1) = Biogas share+LSS share+Wave share+Wind share Present In 1 View:Used By |
SWIS2050(2R) | #451 A | Required thermal network additions (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,"GF-network additions"("Thermal network annual load / capacity"),1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #452 A,T | Resi demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New load profiles Dec17' , 'q' , 'r5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #453 C | Resi FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #454 A | Resi PV additions (Dmnl) = "GF-solar PV penetration"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #455 A | Resi PV capex ($/system) = Ave resi PV array*Unit cost of residential solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #456 A | Resi PV import fraction (Dmnl) = "GF-resi PV"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #457 C | Resi PV purchase adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #458 C | Resi solar adjustment time (Hours) = 288*10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #459 A | Resi solar exports (kW) = Excess resi generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #460 A | Resi solar imports (kW) = Resi storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #461 A,T | Resi solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #462 C | Resi solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #463 A | Resi storage capacity per system (kW*Hour) = Ave resi PV array*Optimum resi storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #464 A | Resi storage capex ($/customer) = Residential SCM*Ave hourly residential demand*Optimum resi storage hours*Unit cost of residential storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #465 F,A | Resi storage charge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")+Excess resi generation<=(Resi storage capacity per system/"1 hour"), Excess resi generation , (Resi storage capacity per system-Resi storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #466 A | Resi storage demand (kW) = IF THEN ELSE(Net resi PV production<=0, -Net resi PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #467 F,A | Resi storage discharge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")-Resi storage demand>=Minimum private storage discharge*(Resi storage capacity per system/"1 hour"), Resi storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #468 A | Resi storage export fraction (Dmnl) = "GF- resi storage exports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #469 A | Resi storage exports (kW) = Excess resi generation-Resi storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #470 A | Resi storage import fraction (Dmnl) = "GF- resi storage imports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #471 A | Resi storage imports (kW) = Resi storage demand-Resi storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #472 F,A | Resi storage losses (kW) = Resi storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #473 A | Resi storage penetration (Dmnl) = "GF-solar PV penetration"(Residential storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #474 L | Resi storage per system (kW*Hour) = ∫(Resi storage charge-Resi storage discharge)-Resi storage losses dt + 0.0 Present In 1 View:Used ByFeedback Loops: 702 (4.3%) (+) 262 [3,30] (-) 269 [2,30] (?) 171 [27,30] |
SWIS2050(2R) | #475 C | Resi storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #476 L | Residential customers (Customers) = ∫Net residential customer growth dt + 1071960.0 Description: ESOO report Table 14 says 1,071,960 but methodoloy report says 980,000 Present In 3 Views:Used By
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SWIS2050(2R) | #477 A | Residential demand met by solar PV (kW) = min(Residential solar generation,Residential hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #478 A | Residential FIT ($/kWh) = Residential tariff*Residential FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #479 L | Residential FIT fraction (Dmnl) = ∫Chg in resi FIT fraction dt + Initial residential FIT fraction Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #480 A | Residential hourly demand (kW) = Ave hourly residential demand*"1 customer"*Resi demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #481 A | Residential PV capacity (MW) = Ave resi PV array*Residential PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #482 A | Residential PV payback (Years) = Resi PV capex/Annual resi PV savings*"1 system/ customer" Present In 3 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #483 A | Residential PV penetration (Dmnl) = Residential PV systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #484 L | Residential PV systems (Systems) = ∫Chg in resi solar PV systems dt + 245000.0 Description: 25% of 980,000 Present In 2 Views:Used By
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SWIS2050(2R) | #485 A | Residential SCM (Dmnl) = Ave resi PV array/Ave hourly residential demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #486 A | Residential solar generation (kW) = Ave resi PV array*"1 system"*Private PV capacity factor*Resi solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #487 A | Residential storage capacity (Hour*MW) = Resi storage capacity per system*Residential storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #488 A | Residential storage payback (Years) = min(Resi storage capex/Addtional resi storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #489 A | Residential storage penetration (Dmnl) = Residential storage systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #490 A | Residential storage savings ($/(customer*year)) = Ave annual residential demand per customer*((Residential tariff*(1-Resi storage import fraction))+(Resi storage export fraction*Residential FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #491 L | Residential storage systems (Systems) = ∫Chg in resi storage systems dt + 0.0 Present In 2 Views:Used By
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SWIS2050(2R) | #492 A | Residential tariff ($/kWh) = Initial residential tariff*Network generation tariff multiplier Present In 3 Views:Used By
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SWIS2050(2R) | #493 A | Retired coal generation (MW/Hour) = Coal retirement*Nominal Coal CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #494 A | Retired gas CC generation (MW/Hour) = Gas CC retirement*Nominal Gas CC CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #495 A | Retired gas CT generation (MW/Hour) = Gas CT retirements*Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 1,092 (6.6%) (+) 99 [15,30] (-) 93 [14,30] (?) 900 [14,30] |
SWIS2050(2R) | #497 C | Solar capacity adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #498 A | Solar only comm premises (Dmnl) = (Commercial PV systems-Commercial storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #499 A | Solar only homes (Dmnl) = (Residential PV systems-Residential storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #500 C | start year (year) = 2015 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #501 A | Sum of A-D (Dmnl) = "A-Ave/LSS"+"B-Ave/Wind"+"C-Ave/Wave"+"D-Ave/Bio" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #502 F,A | Swap (MW) = IF THEN ELSE(Chg in network storage capacity<>0, Network storage capacity/"1 hour" ,0 ) Present In 1 View:Used ByFeedback Loops: 2,423 (14.8%) (+) 894 [5,30] (-) 896 [2,30] (?) 633 [20,30] |
SWIS2050(2R) | #503 C | System/customer (system/customer) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #504 C | Tariff multiplier switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #505 C | Thermal network additions switch (Dmnl) = 0 Present In 2 Views:Used By
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SWIS2050(2R) | #506 A | Thermal network annual load / capacity (Dmnl) = XIDZ(Annual network thermal load/"1 year",Nominal annual thermal generation capacity,1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #507 A | Thermal network undergeneration (MW) = Network thermal load-Total network thermal generation Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #508 C | Thermal plant construction time (Years) = 3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #510 A,T | time lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Times' , 'a' , 'b5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #512 A | Total annual demand (GWh/year) = Annual commercial customer demand+Annual large customer demand+Annual residential customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #513 A | Total annual demand in MWh (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Total annual demand/Correction factor*Year 0*"1 year"*"MW/GW",0) Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #514 A | Total annual system generation (MW*Hour) = Annual network generation-Annual network storage losses+Annual private PV generation-Annual generation curtailed Present In 1 View:Used By |
SWIS2050(2R) | #515 A | Total commercial network load (MW) = (Total network load from comm solar premises+Total network load from comm storage premises+"Total network load from non-solar comm premises")/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #516 A | Total hourly demand (MW) = ("Total hourly demand - resi customers"+"Total hourly demand - comm customers"+"Total hourly demand - large customers")/"kW/MW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #517 A | Total hourly demand - comm customers (kW) = Commercial customers*Commercial hourly demand/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #518 A | Total hourly demand - large customers (kW) = Large customer hourly demand*Large customers Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #519 A | Total hourly demand - resi customers (kW) = Residential hourly demand*Residential customers/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #520 A | Total hourly demand met by customers (MW) = Total hourly demand-max(Total network load,0) Present In 2 Views:Used ByFeedback Loops: 402 (2.4%) (+) 90 [24,30] (-) 82 [24,30] (?) 230 [27,30] |
SWIS2050(2R) | #521 A | Total network load (MW) = Total residential network load+Total commercial network load+("Total hourly demand - large customers"/"kW/MW") Present In 2 Views:Used By
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SWIS2050(2R) | #522 A | Total network load from comm solar premises (kW) = Network load from comm solar premises*Solar only comm premises Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #523 A | Total network load from comm storage premises (kW) = Commercial storage systems*Network load from comm storage premises/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #524 A | Total network load from non-solar comm premises (kW) = Commercial hourly demand*"Non-solar comm premises" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #525 A | Total network load from non-solar homes (kW) = "Non-solar homes"*Residential hourly demand Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #526 A | Total network load from solar only homes (kW) = Network load from resi solar only home*Solar only homes Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #527 A | Total network load from storage home (kW) = Residential storage systems*Network load from resi storage home/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #528 A | Total network thermal generation (MW) = Coal generation+Gas CC generation+Gas CT generation Present In 1 View:Used ByFeedback Loops: 1,889 (11.5%) (+) 324 [15,30] (-) 314 [7,30] (?) 1,251 [17,30] |
SWIS2050(2R) | #529 A | Total private PV capacity (MW) = Commercial PV capacity+Residential PV capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #530 A | Total private PV generation (MW*Hour/year) = Annual commercial PV generation+Annual residential PV generation Present In 1 View:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #531 A | Total private storage capacity (Hour*MW) = Commercial storage capacity+Residential storage capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #532 A | Total residential network load (MW) = ("Total network load from non-solar homes"+Total network load from solar only homes+Total network load from storage home)/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #533 A | Total retired thermal generation (MW/Hour) = IF THEN ELSE(Thermal network additions switch=0, Retired coal generation+Retired gas CC generation+Retired gas CT generation,0) Present In 1 View:Used ByFeedback Loops: 1,884 (11.5%) (+) 187 [15,30] (-) 179 [14,30] (?) 1,518 [14,30] |
SWIS2050(2R) | #534 A | Unit cost of comm battery storage ($/kWh) = Commercial storage fraction*Unit cost of residential storage Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #535 A | Unit cost of commercial solar PV ($/kW) = Commercial solar PV fraction*Unit cost of residential solar PV Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #536 L | Unit cost of residential solar PV ($/kW) = ∫Chg in unit cost of resi solar PV dt + 2460.0 Present In 1 View:Used By
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SWIS2050(2R) | #537 L | Unit cost of residential storage ($/kWh) = ∫Chg in unit cost of resi storage dt + 1000.0 Description: Powerwall costs at Jan 2018 is A$12750 / 13.5 kWh = $945/kWh Present In 1 View:Used By
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SWIS2050(2R) | #538 A | Unit cost of utility scale battery storage ($/kWh) = Unit cost of residential storage*Utility battery storage fraction Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #539 A | Unit cost of utility scale solar PV ($/kW) = Unit cost of residential solar PV*Utility solar PV fraction Present In 2 Views:Used By
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SWIS2050(2R) | #540 A | USBS FOM ($/(MW*Hour*Hour)) = USBS opex/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #541 C | USBS opex ($/(MW*Hour)/year) = 0.025*700000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #542 C | Utility battery storage fraction (Dmnl) = 0.7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #543 A | Utility scale battery storage capex per MWh ($/(MW*Hour)) = Unit cost of utility scale battery storage*"kWh/MWh" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #544 A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) = USBS FOM+Utility scale hourly capex Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #545 C | Utility scale battery storage PMT (1/year) = 0.1424 Description: 10 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #546 A | Utility scale hourly capex ($/(MW*Hour*Hour)) = Utility scale battery storage capex per MWh*Utility scale battery storage PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #547 C | Utility solar PV fraction (Dmnl) = 1.18 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #548 F,A | Wave additions (MW/Hour) = Wave replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #549 L | Wave capacity (MW) = ∫Wave additions-Wave retirements dt + 0.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #550 C | Wave capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #551 L | Wave capex ($/MW) = ∫Chg in wave capex dt + 5900000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #552 C | Wave capex 2050 ($/MW) = 2.53e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #553 C | Wave capex adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #554 C | Wave CF (Dmnl) = 0.35 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #555 C | Wave FOM ($/MW/year) = 40000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #556 A | Wave generation (MW) = Wave capacity*Wave CF*Wave lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #557 A | Wave hourly capex ($/MW/Hour) = Wave capex*Wave PMT/(Hours per year*365/12)/Wave CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #558 A | Wave hourly costs per MWh ($/(MW*Hour)) = Wave hourly capex+(Wave FOM/Wave CF/(Hours per year*365/12))+Wave VOM Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #559 A | Wave hourly operating costs ($/Hour) = Wave capacity*Wave hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #560 C | Wave life (Years) = 20 Present In 1 View:Used By |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #562 C | Wave PMT (1/year) = 0.0944 Description: 20 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #563 A | Wave replacements (MW/Hour) = Total retired thermal generation*Wave share by cost/Wave CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #564 F,A | Wave retirements (MW/Hour) = (Wave capacity-(Wave capacity*Renewables adjustments))/(Wave capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #565 C | Wave share (Dmnl) = 0.3334 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #566 A | Wave share by cost (Dmnl) = "C-Ave/Wave"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #567 C | Wave VOM ($/(MW*Hour)) = 20 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #568 F,A | Wind additions (MW/Hour) = Wind replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #569 L | Wind capacity (MW) = ∫Wind additions-Wind retirements dt + 478.0 Present In 1 View:Used ByFeedback Loops: 1,014 (6.2%) (+) 0 [0,0] (-) 1 [2,2] (?) 1,013 [10,30] |
SWIS2050(2R) | #570 C | Wind capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #571 L | Wind capex ($/MW) = ∫Chg in wind capex dt + 2530000.0 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #572 C | Wind capex adj time (Years) = 5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #573 C | Wind CF (Dmnl) = 0.3875 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #574 C | Wind FOM ($/(MW*year)) = 45000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #575 A | Wind generation (MW) = Wind capacity*Wind CF*Wind lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #576 A | Wind hourly capex ($/MW/Hour) = Wind capex*Wind PMT/(Hours per year*365/12)/Wind CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #577 A | Wind hourly costs per MWh ($/(MW*Hour)) = Wind hourly capex+Wind VOM+(Wind FOM/Wind CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #578 A | Wind hourly operating costs ($/Hour) = Wind capacity*Wind hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #579 C | Wind life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #581 C | Wind PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #582 A | Wind replacements (MW/Hour) = Total retired thermal generation*Wind share by cost/Wind CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #583 F,A | Wind retirements (MW/Hour) = (Wind capacity-(Wind capacity*Renewables adjustments))/(Wind capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #584 C | Wind share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #585 A | Wind share by cost (Dmnl) = "B-Ave/Wind"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #586 C | Wind VOM ($/(MW*Hour)) = 13 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #587 A | Year 0 (Dmnl) = IF THEN ELSE(Time=0, 0 , 1 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #588 A | Year label (year ) = TIME BASE (start year,years per hour) Present In 1 View:Used By |
SWIS2050(2R) | #589 C | years per hour (Years/Hour) = 0.00347222 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| Top | (Type) Smooth (0 Variables) | ||
| Variable Name And Description | |||
| Top | (Type) Delay (0 Variables) | ||
| Variable Name And Description | |||
| Top | (Type) Level Initial (8 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #341 LI,C | Initial coal capacity (MW) = 1778 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #342 LI,C | Initial coal fuel cost ($/GJ) = 2.75 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #343 LI,A | Initial comm FIT fraction (Dmnl) = Initial commercial FIT/Initial commercial tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #346 LI,C | Initial energy intensity (GWh/$m/year) = 0.055992 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #347 LI,C | Initial gas CC capacity (MW) = 2058 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #348 LI,C | Initial gas CT capacity (MW) = 1056+132 Present In 1 View:Used By
|
SWIS2050(2R) | #349 LI,C | Initial gas fuel cost ($/GJ) = 12.3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #353 LI,A | Initial residential FIT fraction (Dmnl) = Initial residential FIT/Initial residential tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| Top | (Type) Initial (0 Variables) | ||
| Variable Name And Description | |||
| Top | (Type) Constant (142 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #1 C | 1 customer (customer) = 1 Present In 2 Views:Used By
|
SWIS2050(2R) | #2 C | 1 hour (Hour) = 1 Present In 5 Views:
|
SWIS2050(2R) | #3 C | 1 system (system) = 1 Present In 3 Views:Used By
|
SWIS2050(2R) | #4 C | 1 system/ customer (system/customer) = 1 Present In 4 Views:Used By
|
SWIS2050(2R) | #5 C | 1 year (year) = 1 Present In 5 Views:
|
SWIS2050(2R) | #11 C | 2050 Biogas costs per MWh* ($/(MW*Hour)) = 65.91 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #12 C | 2050 comm FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2228 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #15 C | 2050 LSS costs per MWh* ($/(MW*Hour)) = 59.56 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #16 C | 2050 residential FIT fraction (Dmnl) = {Generation fraction of tariff} 0.2742 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #19 C | 2050 unit cost of residential solar PV ($/kW) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #20 C | 2050 unit cost of residential storage ($/kWh) = 200 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #22 C | 2050 Wave costs per MWh* ($/(MW*Hour)) = 114.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #24 C | 2050 Wind costs per MWh* ($/(MW*Hour)) = 77.43 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #46 C | Annual demand per large customer (GWh/customer/year) = 316.56 Present In 2 Views:Used By
|
SWIS2050(2R) | #78 C | Annual residential demand growth fraction (1/year) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #79 C | Annual residential growth fraction (1/year) = 0.02 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #97 C | Battery storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #100 C | Biogas capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #101 C | Biogas capex ($/MW) = 3e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #102 C | Biogas CF (Dmnl) = 0.8 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #103 C | Biogas FOM ($/MW/year) = 150000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #108 C | Biogas life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #109 C | Biogas PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #112 C | Biogas share (Dmnl) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #114 C | Biogas VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #116 C | Calendar year (year ) = TIME BASE (2015,0.00347222) Description: 2015 means the 2015/16 year as in the 2017 ESOO for the WEM Present In 2 Views:Used By
|
SWIS2050(2R) | #141 C | Coal capex ($/MW) = 2.88e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #142 C | Coal cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #145 C | Coal emissions per MWh (tCO2e/MW) = 0.743 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #146 C | Coal FOM ($/MW/year) = 50500 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #147 C | Coal fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #156 C | Coal phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #157 C | Coal PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #160 C | Coal TE (Dmnl) = 0.415 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #161 C | Coal VOM ($/(MW*Hour)) = 4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #163 C | Comm FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #166 C | Comm PV purchase adj time (year) = 2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #170 C | Comm solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #183 C | Comm storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #195 C | Commercial solar PV fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #197 C | Commercial storage fraction (Dmnl) = 0.8 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #204 C | Correction factor (Dmnl) = 1.01 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #229 C,F | Diesel additions (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #231 C,F | Diesel retirements (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #234 C | EI adjustment period (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #236 C | Energy intensity multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #243 C | Gas CC capex ($/MW) = 1.092e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #246 C | Gas CC emissions per MWh (tCO2e/(MW)) = 0.349 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #247 C | Gas CC FOM ($/MW/year) = 10000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #255 C | Gas CC phase out period (Years) = 35 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #256 C | Gas CC PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #259 C | Gas CC TE (Dmnl) = 0.506 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #260 C | Gas CC VOM ($/(MW*Hour)) = 7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #262 C | Gas cost multiplier (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #266 C | Gas CT capex ($/MW) = 725000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #267 C | Gas CT emission per MWh (tCO2e/MW) = 0.515 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #270 C | Gas CT FOM ($/MW/year) = 4000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #278 C | Gas CT phase out period (Years) = 18000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #279 C | Gas CT PMT (1/year) = 0.0806 Description: 30 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #282 C | Gas CT TE (Dmnl) = 0.346 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #283 C | Gas CT VOM ($/(MW*Hour)) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #284 C | Gas fuel cost adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #289 C | Generation fraction of tariff (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #301 C | GJ/MWh (GJ/(MW*Hour)) = 3.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #303 C | GSP annual growth fraction (1/year) = 0.033 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #304 C | GW/kW (GWh/kWh) = 1e-06 Present In 3 Views:Used By
|
SWIS2050(2R) | #336 C | Hours per year (Hours/year) = 288 Present In 7 Views:
|
SWIS2050(2R) | #341 LI,C | Initial coal capacity (MW) = 1778 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #342 LI,C | Initial coal fuel cost ($/GJ) = 2.75 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #344 C | Initial commercial FIT ($/kWh) = 0.0713 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #345 C | Initial commercial tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #346 LI,C | Initial energy intensity (GWh/$m/year) = 0.055992 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #347 LI,C | Initial gas CC capacity (MW) = 2058 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #348 LI,C | Initial gas CT capacity (MW) = 1056+132 Present In 1 View:Used By
|
SWIS2050(2R) | #349 LI,C | Initial gas fuel cost ($/GJ) = 12.3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #350 C | Initial large customer tariff ($/kWh) = 0.32 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #351 C | Initial network unit cost ($/(MW*Hour)) = 100 Description: Year 1 result Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #352 C | Initial residential FIT ($/kWh) = 0.0713 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #354 C | Initial residential tariff ($/kWh) = 0.26 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #357 C | kW/MW (kW/MW) = 1000 Present In 3 Views:Used By
|
SWIS2050(2R) | #358 C | kWh (kWh/(kW*Hour)) = 1 Present In 3 Views:Used By
|
SWIS2050(2R) | #359 C | kWh/MWh (kWh/(MW*Hour)) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #365 C | LS solar CF (Dmnl) = 0.23 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #366 C | LS solar FOM ($/MW/year) = 30000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #370 C | LS solar life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #372 C | LS solar PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #376 C | LS solar VOM ($/(MW*Hour)) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #378 C | LSS share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #384 C | Maximum comm PV generation (Dmnl) = 0.4 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #386 C | Maximum resi PV penetration (Dmnl) = 0.6 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #389 C | Minimum private storage discharge (Dmnl) = 0.2 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #391 C | MW/GW (MW*Hour/GWh) = 1000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #401 C | Network generation storage ratio (Dmnl) = 750 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #411 C | Network storage loss fraction (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #413 C | Network storage minimum discharge level (Dmnl) = 0.1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #415 C | Network storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #420 C | Nominal Coal CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #421 C | Nominal coal life (Years) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #423 C | Nominal Gas CC CF (Dmnl) = 0.83 Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #424 C | Nominal gas CC life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #426 C | Nominal Gas CT CF (Dmnl) = 0.1 Present In 3 Views:Used By
|
SWIS2050(2R) | #427 C | Nominal gas CT life (Years) = 30 Present In 1 View:Used By |
SWIS2050(2R) | #435 C | Onshore wind capex 2050 ($/MW) = 2.024e+06 Description: 80% of initial costs - LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #438 C | PHES - battery split (Dmnl) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #440 C | PHES capex per MWh ($/(MW*Hour)) = 200000 Description: LCOE report Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #444 C | PHES life (year) = 50 Present In 1 View:Used By |
SWIS2050(2R) | #445 C | PHES opex % (1/year) = 0.015 Description: Guesstimate Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #446 C | PHES PMT (1/year) = 0.0725 Description: 50 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #448 C | Private PV capacity factor (Dmnl) = 0.183506 Present In 4 Views:Used By
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SWIS2050(2R) | #453 C | Resi FIT adjustment time (Hours) = 10*288 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #457 C | Resi PV purchase adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #458 C | Resi solar adjustment time (Hours) = 288*10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #462 C | Resi solar switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #475 C | Resi storage switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #497 C | Solar capacity adj time (year) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #500 C | start year (year) = 2015 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #503 C | System/customer (system/customer) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #504 C | Tariff multiplier switch (Dmnl) = 1 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #505 C | Thermal network additions switch (Dmnl) = 0 Present In 2 Views:Used By
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SWIS2050(2R) | #508 C | Thermal plant construction time (Years) = 3 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #541 C | USBS opex ($/(MW*Hour)/year) = 0.025*700000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #542 C | Utility battery storage fraction (Dmnl) = 0.7 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #545 C | Utility scale battery storage PMT (1/year) = 0.1424 Description: 10 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #547 C | Utility solar PV fraction (Dmnl) = 1.18 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #550 C | Wave capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #552 C | Wave capex 2050 ($/MW) = 2.53e+06 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #553 C | Wave capex adj time (Years) = 10 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #554 C | Wave CF (Dmnl) = 0.35 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #555 C | Wave FOM ($/MW/year) = 40000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #560 C | Wave life (Years) = 20 Present In 1 View:Used By |
SWIS2050(2R) | #562 C | Wave PMT (1/year) = 0.0944 Description: 20 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #565 C | Wave share (Dmnl) = 0.3334 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #567 C | Wave VOM ($/(MW*Hour)) = 20 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #570 C | Wind capacity adj time (Years) = 0.5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #572 C | Wind capex adj time (Years) = 5 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #573 C | Wind CF (Dmnl) = 0.3875 Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #574 C | Wind FOM ($/(MW*year)) = 45000 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #579 C | Wind life (Years) = 25 Present In 1 View:Used By |
SWIS2050(2R) | #581 C | Wind PMT (1/year) = 0.0858 Description: 25 year life Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #584 C | Wind share (Dmnl) = 0.3333 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #586 C | Wind VOM ($/(MW*Hour)) = 13 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #589 C | years per hour (Years/Hour) = 0.00347222 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| Top | (Type) Flow (87 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #26 F,A | Additive annual emissions (tCO2e) = IF THEN ELSE(Hour of the year=0,Annual emissions , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #98 F,A | Biogas additions (MW/Hour) = Biogas replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #111 F,A | Biogas retirements (MW/Hour) = (Biogas capacity-(Biogas capacity*Renewables adjustments))/(Biogas capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 213 [10,30] (-) 225 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #117 F,A | Chg in ave comm PV array (kW/system/Hour) = (Indicated comm PV array-Ave comm PV array)/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #118 F,A | Chg in ave resi PV array (kW/system/Hour) = (Indicated resi PV array-Ave resi PV array)/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #119 F,A | Chg in coal fuel cost ($/GJ/Hour) = ("2050 unit cost of coal fuel"-Coal fuel unit cost)/(Coal fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #120 F,A | Chg in comm FIT fraction (1/Hour) = ("2050 comm FIT fraction"-Commercial FIT fraction)/Comm FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #121 F,A | Chg in comm storage systems (Systems/Hour) = (Commercial PV systems-Commercial storage systems)*Comm storage penetration/(Comm PV purchase adj time*Hours per year)*Comm storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #122 F,A | Chg in commercial customers (Customers/Hour) = Commercial customers*Annual comm customer growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #123 F,A | Chg in commercial PV systems (Systems/Hour) = (Max comm PV systems-Commercial PV systems)*Comm PV additions/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 1,754 (10.7%) (+) 846 [20,30] (-) 857 [2,30] (?) 51 [27,30] |
SWIS2050(2R) | #124 F,A | Chg in gas fuel cost ($/(Hour*GJ)) = ("2050 unit cost of gas fuel"-Gas fuel unit cost)/(Gas fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #125 F,A | Chg in large customers (Customers/Hour) = Large customers*Annual large customer growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #126 F,A | Chg in network storage capacity (MW) = IF THEN ELSE(Network storage SoC>Network storage capacity, Network storage SoC/"1 hour", 0) Present In 1 View:Used ByFeedback Loops: 5,540 (33.7%) (+) 2,020 [2,30] (-) 2,060 [3,30] (?) 1,460 [19,30] |
SWIS2050(2R) | #127 F,A | Chg in resi FIT fraction (1/Hour) = ("2050 residential FIT fraction"-Residential FIT fraction)/Resi FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #128 F,A | Chg in resi solar PV systems (Systems/Hour) = (Max resi PV systems-Residential PV systems)*Resi PV additions/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used By
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SWIS2050(2R) | #129 F,A | Chg in resi storage systems (Systems/Hour) = (Residential PV systems-Residential storage systems)*Resi storage penetration/(Resi PV purchase adj time*Hours per year)*Resi storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #130 F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) = ("2050 unit cost of residential solar PV"-Unit cost of residential solar PV)/Resi solar adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #131 F,A | Chg in unit cost of resi storage ($/kWh/Hour) = ("2050 unit cost of residential storage"-Unit cost of residential storage)/Resi solar adjustment time Present In 1 View:Used By
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SWIS2050(2R) | #132 F,A | Chg in wave capex ($/(MW*Hour)) = (Wave capex 2050-Wave capex)/(Wave capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #133 F,A | Chg in wind capex ($/MW/Hour) = (Onshore wind capex 2050-Wind capex)/(Wind capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #134 F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) = Ave annual residential demand per customer*Annual residential demand growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #135 F,A | Chgs to energy intensity (GWh/$m/year/Hour) = ("2050 energy intensity"-Energy intensity)/EI adjustment period/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #136 F,A | Chgs to GSP ($m/Hour) = GSP*GSP annual growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #138 F,A | Coal additions (MW/Hour) = ((Coal capacity*Required thermal network additions)-Coal capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,372 (8.4%) (+) 275 [6,30] (-) 284 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #143 F,A | Coal emission out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #144 F,A | Coal emissions in (tCO2e) = Hourly coal emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #155 F,A | Coal operating hours (Dmnl) = Coal generation/Coal capacity Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #173 F,A | Comm storage charge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")+Excess comm generation<=(Comm storage capacity per system/"1 hour"), Excess comm generation , (Comm storage capacity per system-Comm storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #175 F,A | Comm storage discharge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")-Comm storage demand>=Minimum private storage discharge*(Comm storage capacity per system/"1 hour"), Comm storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #180 F,A | Comm storage losses (kW) = Comm storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #229 C,F | Diesel additions (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #231 C,F | Diesel retirements (MW/Hour) = 0 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #232 F,A | DNR in (MW) = Demand met by network renewables*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #233 F,A | DNR out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative demand met by network renewables/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #240 F,A | Gas CC additions (MW/Hour) = (Gas CC capacity*Required thermal network additions-Gas CC capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,012 (6.2%) (+) 203 [6,30] (-) 206 [2,30] (?) 603 [17,30] |
SWIS2050(2R) | #244 F,A | Gas CC emissions in (tCO2e) = Hourly gas CC emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #245 F,A | Gas CC emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #254 F,A | Gas CC operating hours (Dmnl) = Gas CC generation/Gas CC capacity Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #264 F,A | Gas CT additions (MW/Hour) = (Gas CT capacity*Required thermal network additions-Gas CT capacity)/(Thermal plant construction time*Hours per year)+(Addtl Gas CT reqd/"1 hour") Present In 1 View:Used By
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SWIS2050(2R) | #268 F,A | Gas CT emissions in (tCO2e) = Hourly gas CT emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #269 F,A | Gas CT emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CT emissions/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #277 F,A | Gas CT operating hours (Dmnl) = Gas CT generation/Gas CT capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
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SWIS2050(2R) | #286 F,A | Gen curtailed in (MW) = Generation curtailed*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #287 F,A | Gen curtailed out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative generation curtailed/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #307 F,A | Hourly BG in (MW) = Biogas generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #308 F,A | Hourly BG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative biogas generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #309 F,A | Hourly CG in (MW) = Coal generation*365/12 Present In 1 View:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #310 F,A | Hourly CG out (MW) = IF THEN ELSE(Hour of the year=0, Cum coal generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #313 F,A | Hourly demand met in (MW) = Total hourly demand met by customers*365/12 Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #314 F,A | Hourly demand met out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative demand met by customers/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #317 F,A | Hourly GCC in (MW) = Gas CC generation*365/12 Present In 1 View:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #318 F,A | Hourly GCC out (MW) = IF THEN ELSE(Hour of the year=0, Cum gas CC generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #319 F,A | Hourly GCT in (MW) = Gas CT generation*365/12 Present In 1 View:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #320 F,A | Hourly GCT out (MW) = IF THEN ELSE(Hour of the year=0, Cum CT generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #321 F,A | Hourly LSS in (MW) = LS solar PV generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #322 F,A | Hourly LSS out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative LS solar generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #324 F,A | Hourly NL in (MW) = Total network load*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #325 F,A | Hourly NL out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative network load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #326 F,A | Hourly NS losses in (MW) = Network storage losses*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #327 F,A | Hourly NS losses out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage losses/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #328 F,A | Hourly NTL in (MW) = Network thermal load*365/12 Present In 1 View:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #329 F,A | Hourly NTL out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network thermal load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #330 F,A | Hourly TNU in (MW) = Thermal network undergeneration*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #331 F,A | Hourly TNU out (MW) = IF THEN ELSE(Hour of the year=0, Cum thermal network undergeneration/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #332 F,A | Hourly WaveG in (MW) = Wave generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #333 F,A | Hourly WaveG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wave generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #334 F,A | Hourly WG in (MW) = Wind generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #335 F,A | Hourly WG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wind generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #363 F,A | LS solar additions (MW/Hour) = LSS replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #375 F,A | LS solar retirements (MW/Hour) = (LS Solar PV capacity-(LS Solar PV capacity*Renewables adjustments))/(Solar capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #399 F,A | Net residential customer growth (Customers/Hour) = Residential customers*Annual residential growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #409 F,A | Network storage charge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Negative network load<=(Maximum network storage/"1 hour"), -Negative network load*Network storage switch,0) Present In 1 View:Used ByFeedback Loops: 8,802 (53.6%) (+) 3,093 [2,30] (-) 3,145 [3,30] (?) 2,564 [17,30] |
SWIS2050(2R) | #410 F,A | Network storage discharge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Positive network load<(Network storage minimum discharge level*Network storage capacity/"1 hour"),0,Positive network load) Present In 1 View:Used By
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SWIS2050(2R) | #412 F,A | Network storage losses (MW) = Network storage charge*Network storage loss fraction Present In 1 View:Used ByFeedback Loops: 3,821 (23.3%) (+) 1,369 [18,30] (-) 1,375 [3,30] (?) 1,077 [18,30] |
SWIS2050(2R) | #433 F,A | NS discharge in (MW) = Network storage discharge*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #434 F,A | NS discharge out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage discharge/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #465 F,A | Resi storage charge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")+Excess resi generation<=(Resi storage capacity per system/"1 hour"), Excess resi generation , (Resi storage capacity per system-Resi storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #467 F,A | Resi storage discharge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")-Resi storage demand>=Minimum private storage discharge*(Resi storage capacity per system/"1 hour"), Resi storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #472 F,A | Resi storage losses (kW) = Resi storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #502 F,A | Swap (MW) = IF THEN ELSE(Chg in network storage capacity<>0, Network storage capacity/"1 hour" ,0 ) Present In 1 View:Used ByFeedback Loops: 2,423 (14.8%) (+) 894 [5,30] (-) 896 [2,30] (?) 633 [20,30] |
SWIS2050(2R) | #548 F,A | Wave additions (MW/Hour) = Wave replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #564 F,A | Wave retirements (MW/Hour) = (Wave capacity-(Wave capacity*Renewables adjustments))/(Wave capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #568 F,A | Wind additions (MW/Hour) = Wind replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #583 F,A | Wind retirements (MW/Hour) = (Wind capacity-(Wind capacity*Renewables adjustments))/(Wind capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
| Top | (Type) Auxiliary (387 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #6 A | 2030 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #7 A | 2030 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, LS solar hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #8 A | 2030 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #9 A | 2030 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2030, Wind hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #10 A | 2050 Biogas costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Biogas hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #13 A | 2050 energy intensity (GWh/(year*$m)) = Initial energy intensity*Energy intensity multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #14 A | 2050 LSS costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, LS solar hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #17 A | 2050 unit cost of coal fuel ($/GJ) = Initial coal fuel cost*Coal cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #18 A | 2050 unit cost of gas fuel ($/GJ) = Initial gas fuel cost*Gas cost multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #21 A | 2050 Wave costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wave hourly costs per MWh , 0 ) Present In 1 View:Used By |
SWIS2050(2R) | #23 A | 2050 Wind costs per MWh ($/(MW*Hour)) = SAMPLE IF TRUE(Calendar year=2050, Wind hourly costs per MWh , 0) Present In 1 View:Used By |
SWIS2050(2R) | #25 A | A-Ave/LSS (Dmnl) = Average 2050 renewables costs per MWh/"2050 LSS costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #26 F,A | Additive annual emissions (tCO2e) = IF THEN ELSE(Hour of the year=0,Annual emissions , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #27 A | Addtional comm storage savings ($/(customer*year)) = max(Commercial storage savings-Annual comm PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #28 A | Addtional resi storage savings ($/(customer*year)) = max(Residential storage savings-Annual resi PV savings,1) Present In 1 View:Used ByFeedback Loops: 1,792 (10.9%) (+) 864 [20,30] (-) 874 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #29 A | Addtl Gas CT reqd (MW) = IF THEN ELSE(Hourly demand balance>1, Hourly demand balance,0) Present In 1 View:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #30 A | Annual biogas costs ($) = Annual biogas generation*Biogas hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 12 [29,30] (-) 10 [29,30] |
SWIS2050(2R) | #31 A | Annual biogas generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative biogas generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #32 A | Annual coal costs ($) = Annual coal generation*Coal hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,286 (7.8%) (+) 546 [22,30] (-) 546 [22,30] (?) 194 [26,30] |
SWIS2050(2R) | #33 A | Annual coal emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #34 A | Annual coal generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum coal generation , 0) Present In 2 Views:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #35 A | Annual comm customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #36 A | Annual comm PV exports (kWh/(customer*year)) = Annual comm PV generation-(Annual demand per comm customer/"GW/kW")+Annual comm PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #37 A | Annual comm PV generation (kWh/(customer*year)) = Commercial SCM*Ave hourly commercial demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #38 A | Annual comm PV imports (kWh/customer/year) = Ave hourly commercial demand*Hours per year*365/12*Comm import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #39 A | Annual comm PV savings ($/customer/year) = (((Annual demand per comm customer/"GW/kW")-Annual comm PV imports)*Commercial tariff)+(Annual comm PV exports*Commercial FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #40 A | Annual commercial customer demand (GWh/year) = Industry energy demand-Annual large customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #41 A | Annual commercial PV generation (MW*Hour/year) = Commercial PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #42 A | Annual demand balance (Hour*MW) = Net annual network demand-Annual network generation plus storage discharges Present In 1 View:Used By |
SWIS2050(2R) | #43 A | Annual demand balance ratio (Dmnl) = XIDZ( Net annual network demand,Annual network generation,1) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #44 A | Annual demand met by network renewables (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by network renewables , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #45 A | Annual demand per comm customer (GWh/(year*customer)) = Annual commercial customer demand/Commercial customers Present In 3 Views:Used By
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SWIS2050(2R) | #47 A | Annual emissions (tCO2e) = Annual coal emissions+Annual gas CC emissions+Annual gas CT emissions Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #48 A | Annual gas CC costs ($) = Annual gas CC generation*Gas CC hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 2,190 (13.3%) (+) 934 [22,30] (-) 930 [22,30] (?) 326 [26,30] |
SWIS2050(2R) | #49 A | Annual gas CC emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #50 A | Annual gas CC generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum gas CC generation , 0) Present In 2 Views:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #51 A | Annual gas CT costs ($) = Annual gas CT generation*Gas CT hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 1,914 (11.7%) (+) 824 [22,30] (-) 820 [22,30] (?) 270 [26,30] |
SWIS2050(2R) | #52 A | Annual gas CT emissions (tCO2e) = SAMPLE IF TRUE(Hour of the year=0, Cumulative gas CT emissions/"1 hour" , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #53 A | Annual gas CT generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum CT generation , 0) Present In 2 Views:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #54 A | Annual generation curtailed (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative generation curtailed , 0 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #55 A | Annual large customer demand (GWh/year) = Annual demand per large customer*Large customers Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #56 A | Annual large customer growth fraction (1/year) = GSP annual growth fraction Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #57 A | Annual LS solar costs ($) = Annual LS solar generation*LS solar hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #58 A | Annual LS solar generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative LS solar generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #59 A | Annual network generation (MW*Hour) = Annual network renewables generation+Annual network thermal generation Present In 2 Views:Used ByFeedback Loops: 7,826 (47.6%) (+) 2,523 [10,30] (-) 2,586 [14,30] (?) 2,717 [10,30] |
SWIS2050(2R) | #60 A | Annual network generation and storage costs ($) = Annual network generation costs+Annual network storage costs Present In 1 View:Used ByFeedback Loops: 7,114 (43.3%) (+) 2,920 [21,30] (-) 2,934 [21,30] (?) 1,260 [25,30] |
SWIS2050(2R) | #61 A | Annual network generation costs ($) = Annual network renewables costs+Annual thermal network costs Present In 1 View:Used ByFeedback Loops: 5,478 (33.3%) (+) 2,316 [22,30] (-) 2,306 [22,30] (?) 856 [26,30] |
SWIS2050(2R) | #62 A | Annual network generation plus storage discharges (Hour*MW) = Annual network thermal generation+Annual demand met by network renewables+Annual network storage discharge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #63 A | Annual network load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #64 A | Annual network renewables costs ($) = Annual LS solar costs+Annual wave costs+Annual wind costs+Annual biogas costs Present In 1 View:Used ByFeedback Loops: 88 (0.5%) (+) 12 [29,30] (-) 10 [29,30] (?) 66 [29,30] |
SWIS2050(2R) | #65 A | Annual network renewables generation (MW*Hour) = Annual LS solar generation+Annual wave generation+Annual wind generation+Annual biogas generation Present In 2 Views:Used ByFeedback Loops: 1,384 (8.4%) (+) 114 [10,30] (-) 127 [20,30] (?) 1,143 [10,30] |
SWIS2050(2R) | #66 A | Annual network storage costs ($) = (Annual PHES costs+Annual USBS costs)*"1 year" Present In 1 View:Used ByFeedback Loops: 1,636 (10.0%) (+) 604 [21,30] (-) 628 [21,30] (?) 404 [25,30] |
SWIS2050(2R) | #67 A | Annual network storage discharge (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage discharge , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #68 A | Annual network storage losses (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network storage losses , 0) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #69 A | Annual network thermal generation (MW*Hour) = Annual coal generation+Annual gas CC generation+Annual gas CT generation Present In 3 Views:Used ByFeedback Loops: 7,194 (43.8%) (+) 2,496 [15,30] (-) 2,560 [14,30] (?) 2,138 [14,30] |
SWIS2050(2R) | #70 A | Annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative network thermal load , 0) Present In 2 Views:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #71 A | Annual PHES costs ($/year) = PHES capacity*PHES hourly costs per MWh*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #72 A | Annual private PV generation (Hour*MW) = SAMPLE IF TRUE(Hour of the year=287, Total private PV generation*"1 year" , 0) Present In 2 Views:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #73 A | Annual resi PV exports (kWh/(customer*year)) = Annual resi PV generation-Ave annual residential demand per customer+Annual resi PV imports Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #74 A | Annual resi PV generation (kWh/(customer*year)) = Residential SCM*Ave hourly residential demand*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [8,8] (-) 0 [0,0] |
SWIS2050(2R) | #75 A | Annual resi PV imports (kWh/customer/year) = Ave hourly residential demand*Hours per year*365/12*Resi PV import fraction Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #76 A | Annual resi PV savings ($/customer/year) = ((Ave annual residential demand per customer-Annual resi PV imports)*Residential tariff)+(Annual resi PV exports*Residential FIT) Present In 1 View:Used ByFeedback Loops: 5,714 (34.8%) (+) 2,256 [8,30] (-) 2,275 [9,30] (?) 1,183 [24,30] |
SWIS2050(2R) | #77 A | Annual residential customer demand (GWh/year) = Residential customers*Ave annual residential demand per customer*"GW/kW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #80 A | Annual residential PV generation (MW*Hour/year) = Residential PV capacity*Private PV capacity factor*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #81 A | Annual thermal network costs ($) = Annual coal costs+Annual gas CC costs+Annual gas CT costs Present In 1 View:Used ByFeedback Loops: 5,390 (32.8%) (+) 2,304 [22,30] (-) 2,296 [22,30] (?) 790 [26,30] |
SWIS2050(2R) | #82 A | Annual thermal network undergeneration (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cum thermal network undergeneration , 0) Present In 1 View:Used By |
SWIS2050(2R) | #83 A | Annual total demand met by customers (Hour*MW) = SAMPLE IF TRUE(Hour of the year=0, Cumulative demand met by customers , 0) Present In 2 Views:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #84 A | Annual USBS costs ($/year) = SAMPLE IF TRUE(Hour of the year=0, Network battery storage capacity*Utility scale battery storage hourly costs per MWh*Hours per year*365/12,0) Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #85 A | Annual wave costs ($) = Annual wave generation*Wave hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #86 A | Annual wave generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wave generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #87 A | Annual wind costs ($) = Annual wind generation*Wind hourly costs per MWh Present In 1 View:Used ByFeedback Loops: 22 (0.1%) (+) 0 [0,0] (-) 0 [0,0] (?) 22 [29,30] |
SWIS2050(2R) | #88 A | Annual wind generation (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Cumulative wind generation , 0) Present In 2 Views:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #91 A | Ave hourly commercial demand (kWh/(Hour*customer)) = Annual demand per comm customer/Hours per year/(365/12)/"GW/kW" Present In 4 Views:Used By
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SWIS2050(2R) | #92 A | Ave hourly large customer demand (kWh/(Hour*customer)) = Annual demand per large customer/Hours per year/(365/12)/"GW/kW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #93 A | Ave hourly residential demand (kWh/(Hour*customer)) = Ave annual residential demand per customer/Hours per year/(365/12) Present In 5 Views:Used By
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SWIS2050(2R) | #95 A | Average 2050 renewables costs per MWh ($/(MW*Hour)) = ("2050 Biogas costs per MWh*"+"2050 LSS costs per MWh*"+"2050 Wave costs per MWh*"+"2050 Wind costs per MWh*") Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #96 A | B-Ave/Wind (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wind costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #98 F,A | Biogas additions (MW/Hour) = Biogas replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #104 A | Biogas generation (MW) = Biogas capacity*Biogas CF Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 400 [10,30] (-) 403 [14,30] (?) 210 [24,30] |
SWIS2050(2R) | #105 A | Biogas hourly capex ($/MW/Hour) = Biogas capex*Biogas PMT/(Hours per year*365/12)/Biogas CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #106 A | Biogas hourly costs per MWh ($/(MW*Hour)) = Biogas hourly capex+Biogas VOM+(Biogas FOM/Biogas CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #107 A | Biogas hourly operating costs ($/Hour) = Biogas capacity*Biogas hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #110 A | Biogas replacements (MW/Hour) = Total retired thermal generation*Biogas share by cost/Biogas CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 187 [15,30] (-) 179 [14,30] (?) 105 [24,30] |
SWIS2050(2R) | #111 F,A | Biogas retirements (MW/Hour) = (Biogas capacity-(Biogas capacity*Renewables adjustments))/(Biogas capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 213 [10,30] (-) 225 [2,30] (?) 105 [24,30] |
SWIS2050(2R) | #113 A | Biogas share by cost (Dmnl) = "D-Ave/Bio"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #115 A | C-Ave/Wave (Dmnl) = Average 2050 renewables costs per MWh/"2050 Wave costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #117 F,A | Chg in ave comm PV array (kW/system/Hour) = (Indicated comm PV array-Ave comm PV array)/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #118 F,A | Chg in ave resi PV array (kW/system/Hour) = (Indicated resi PV array-Ave resi PV array)/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used ByFeedback Loops: 3,172 (19.3%) (+) 1,022 [8,30] (-) 1,045 [2,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #119 F,A | Chg in coal fuel cost ($/GJ/Hour) = ("2050 unit cost of coal fuel"-Coal fuel unit cost)/(Coal fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #120 F,A | Chg in comm FIT fraction (1/Hour) = ("2050 comm FIT fraction"-Commercial FIT fraction)/Comm FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #121 F,A | Chg in comm storage systems (Systems/Hour) = (Commercial PV systems-Commercial storage systems)*Comm storage penetration/(Comm PV purchase adj time*Hours per year)*Comm storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #122 F,A | Chg in commercial customers (Customers/Hour) = Commercial customers*Annual comm customer growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #123 F,A | Chg in commercial PV systems (Systems/Hour) = (Max comm PV systems-Commercial PV systems)*Comm PV additions/(Comm PV purchase adj time*Hours per year)*Comm solar switch Present In 1 View:Used ByFeedback Loops: 1,754 (10.7%) (+) 846 [20,30] (-) 857 [2,30] (?) 51 [27,30] |
SWIS2050(2R) | #124 F,A | Chg in gas fuel cost ($/(Hour*GJ)) = ("2050 unit cost of gas fuel"-Gas fuel unit cost)/(Gas fuel cost adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #125 F,A | Chg in large customers (Customers/Hour) = Large customers*Annual large customer growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #126 F,A | Chg in network storage capacity (MW) = IF THEN ELSE(Network storage SoC>Network storage capacity, Network storage SoC/"1 hour", 0) Present In 1 View:Used ByFeedback Loops: 5,540 (33.7%) (+) 2,020 [2,30] (-) 2,060 [3,30] (?) 1,460 [19,30] |
SWIS2050(2R) | #127 F,A | Chg in resi FIT fraction (1/Hour) = ("2050 residential FIT fraction"-Residential FIT fraction)/Resi FIT adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #128 F,A | Chg in resi solar PV systems (Systems/Hour) = (Max resi PV systems-Residential PV systems)*Resi PV additions/(Resi PV purchase adj time*Hours per year)*Resi solar switch Present In 1 View:Used By
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SWIS2050(2R) | #129 F,A | Chg in resi storage systems (Systems/Hour) = (Residential PV systems-Residential storage systems)*Resi storage penetration/(Resi PV purchase adj time*Hours per year)*Resi storage switch Present In 1 View:Used ByFeedback Loops: 2,814 (17.1%) (+) 1,365 [20,30] (-) 1,380 [2,30] (?) 69 [27,30] |
SWIS2050(2R) | #130 F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) = ("2050 unit cost of residential solar PV"-Unit cost of residential solar PV)/Resi solar adjustment time Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #131 F,A | Chg in unit cost of resi storage ($/kWh/Hour) = ("2050 unit cost of residential storage"-Unit cost of residential storage)/Resi solar adjustment time Present In 1 View:Used By
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SWIS2050(2R) | #132 F,A | Chg in wave capex ($/(MW*Hour)) = (Wave capex 2050-Wave capex)/(Wave capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #133 F,A | Chg in wind capex ($/MW/Hour) = (Onshore wind capex 2050-Wind capex)/(Wind capex adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #134 F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) = Ave annual residential demand per customer*Annual residential demand growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #135 F,A | Chgs to energy intensity (GWh/$m/year/Hour) = ("2050 energy intensity"-Energy intensity)/EI adjustment period/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #136 F,A | Chgs to GSP ($m/Hour) = GSP*GSP annual growth fraction/Hours per year Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [2,2] (-) 0 [0,0] |
SWIS2050(2R) | #137 A | Coal % (Dmnl) = ZIDZ( Coal generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #138 F,A | Coal additions (MW/Hour) = ((Coal capacity*Required thermal network additions)-Coal capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,372 (8.4%) (+) 275 [6,30] (-) 284 [2,30] (?) 813 [17,30] |
SWIS2050(2R) | #139 A | Coal available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=4:OR:MODULO( Month of the year, 12)=8,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #143 F,A | Coal emission out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative coal emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #144 F,A | Coal emissions in (tCO2e) = Hourly coal emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #148 A | Coal fuel costs ($/(MW*Hour)) = Coal fuel unit cost*"GJ/MWh"/Coal TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #150 A | Coal generation (MW) = IF THEN ELSE(Network thermal load<Min coal generation capacity, 0 , IF THEN ELSE(Network thermal load<Max coal generation capacity, Network thermal load*Coal available hours , Max coal generation capacity*Coal available hours) ) Present In 2 Views:Used By
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SWIS2050(2R) | #151 A | Coal hourly capex ($/(MW*Hour)) = (Coal capex*Coal PMT)/(Hours per year*365/12)/Coal operating CF Present In 1 View:Used ByFeedback Loops: 304 (1.9%) (+) 128 [24,30] (-) 132 [24,30] (?) 44 [28,30] |
SWIS2050(2R) | #152 A | Coal hourly costs per MWh ($/(MW*Hour)) = Coal hourly capex+(Coal FOM/Coal operating CF/(Hours per year*365/12))+Coal VOM+Coal fuel costs Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #153 A | Coal hourly operating costs ($/Hour) = Coal capacity*Coal hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #154 A | Coal operating CF (Dmnl) = XIDZ( Cumulative coal operating hours,Time,(Nominal Coal CF)) Present In 2 Views:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #155 F,A | Coal operating hours (Dmnl) = Coal generation/Coal capacity Present In 1 View:Used ByFeedback Loops: 744 (4.5%) (+) 320 [23,30] (-) 320 [23,30] (?) 104 [27,30] |
SWIS2050(2R) | #158 F,A | Coal retirement (MW/Hour) = IF THEN ELSE(Coal capacity>0, Initial coal capacity/(Coal retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #159 A | Coal retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Coal phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #162 A,T | Comm demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Load profiles' , 'r' , 'ai5' )
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #164 A | Comm import fraction (Dmnl) = "GF-comm PV"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #165 A | Comm PV additions (Dmnl) = "GF-solar PV penetration"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #167 A | Comm solar exports (kW) = Excess comm generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #168 A | Comm solar imports (kW) = Comm storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #169 A,T | Comm solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Solar resource' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #171 A | Comm storage capacity per system (Hour*kW) = Ave comm PV array*Optimum comm storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #172 A | Comm storage capex ($/customer) = Commercial SCM*Ave hourly commercial demand*Optimum comm storage hours*Unit cost of comm battery storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #173 F,A | Comm storage charge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")+Excess comm generation<=(Comm storage capacity per system/"1 hour"), Excess comm generation , (Comm storage capacity per system-Comm storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #174 A | Comm storage demand (kW) = IF THEN ELSE(Net comm PV production<=0, -Net comm PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #175 F,A | Comm storage discharge (kW) = IF THEN ELSE((Comm storage per system/"1 hour")-Comm storage demand>=Minimum private storage discharge*(Comm storage capacity per system/"1 hour"), Comm storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #176 A | Comm storage export fraction (Dmnl) = "GF- comm storage exports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #177 A | Comm storage exports (kW) = Excess comm generation-Comm storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #178 A | Comm storage import fraction (Dmnl) = "GF- comm storage imports"(Commercial SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #179 A | Comm storage imports (kW) = Comm storage demand-Comm storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #180 F,A | Comm storage losses (kW) = Comm storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #181 A | Comm storage penetration (Dmnl) = "GF-solar PV penetration"(Commercial storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #185 A | Commercial demand met by solar PV (kW) = min(Commercial solar generation,Commercial hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #186 A | Commercial FIT ($/kWh) = Commercial tariff*Commercial FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #188 A | Commercial hourly demand (kW) = Ave hourly commercial demand*"1 customer"*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #189 A | Commercial PV capacity (MW) = Ave comm PV array*Commercial PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #190 A | Commercial PV payback (Years) = CommPV capex/Annual comm PV savings*"1 system/ customer" Present In 2 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #191 A | Commercial PV penetration (Dmnl) = Commercial PV systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #193 A | Commercial SCM (Dmnl) = Ave comm PV array/Ave hourly commercial demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #194 A | Commercial solar generation (kW) = Ave comm PV array*"1 system"*Private PV capacity factor*Comm solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #196 A | Commercial storage capacity (Hour*MW) = Comm storage capacity per system*Commercial storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #198 A | Commercial storage payback (Years) = min(Comm storage capex/Addtional comm storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #199 A | Commercial storage penetration (Dmnl) = Commercial storage systems/Commercial customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #200 A | Commercial storage savings ($/(customer*year)) = (Annual demand per comm customer/"GW/kW")*((Commercial tariff*(1-Comm storage import fraction))+(Comm storage export fraction*Commercial FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #202 A | Commercial tariff ($/kWh) = Initial commercial tariff*Network generation tariff multiplier Present In 2 Views:Used By
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SWIS2050(2R) | #203 A | CommPV capex ($/system) = Ave comm PV array*Unit cost of commercial solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #227 A | D-Ave/Bio (Dmnl) = Average 2050 renewables costs per MWh/"2050 Biogas costs per MWh*" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #228 A | Demand met by network renewables (MW) = IF THEN ELSE(Total network load<=0, 0 , IF THEN ELSE( Total network load<Network renewables generation, Total network load , Network renewables generation ) ) Present In 1 View:Used ByFeedback Loops: 270 (1.6%) (+) 60 [24,30] (-) 70 [14,30] (?) 140 [14,30] |
SWIS2050(2R) | #232 F,A | DNR in (MW) = Demand met by network renewables*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #233 F,A | DNR out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative demand met by network renewables/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #237 A | Excess comm generation (kW) = IF THEN ELSE(Net comm PV production>0, Net comm PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
SWIS2050(2R) | #238 A | Excess resi generation (kW) = IF THEN ELSE(Net resi PV production>0, Net resi PV production , 0 ) Present In 1 View:Used ByFeedback Loops: 569 (3.5%) (+) 0 [0,0] (-) 0 [0,0] (?) 569 [24,30] |
SWIS2050(2R) | #240 F,A | Gas CC additions (MW/Hour) = (Gas CC capacity*Required thermal network additions-Gas CC capacity)/(Thermal plant construction time*Hours per year) Present In 1 View:Used ByFeedback Loops: 1,012 (6.2%) (+) 203 [6,30] (-) 206 [2,30] (?) 603 [17,30] |
SWIS2050(2R) | #241 A | Gas CC available hours (Dmnl) = IF THEN ELSE( MODULO( Month of the year, 12)=3,0,1) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #244 F,A | Gas CC emissions in (tCO2e) = Hourly gas CC emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #245 F,A | Gas CC emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CC emissions/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #248 A | Gas CC fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CC TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #249 A | Gas CC generation (MW) = IF THEN ELSE((Network thermal load-Coal generation)<Min gas CC generation capacity, 0,IF THEN ELSE((Network thermal load-Coal generation)<Max gas CC generation capacity, (Network thermal load-Coal generation)*Gas CC available hours , Max gas CC generation capacity*Gas CC available hours)) Present In 2 Views:Used By
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SWIS2050(2R) | #250 A | Gas CC hourly capex ($/MW/Hour) = (Gas CC capex*Gas CC PMT)/(Hours per year*365/12)/Gas CC operating CF Present In 1 View:Used ByFeedback Loops: 502 (3.1%) (+) 212 [24,30] (-) 218 [24,30] (?) 72 [28,30] |
SWIS2050(2R) | #251 A | Gas CC hourly costs per MWh ($/(MW*Hour)) = Gas CC hourly capex+Gas CC VOM+((Gas CC FOM/Gas CC operating CF)/(Hours per year*365/12))+Gas CC fuel costs Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #252 A | Gas CC hourly operating costs ($/Hour) = Gas CC capacity*Gas CC hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #253 A | Gas CC operating CF (Dmnl) = XIDZ( Cumulative gas CC operating hours,Time,Nominal Gas CC CF) Present In 2 Views:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #254 F,A | Gas CC operating hours (Dmnl) = Gas CC generation/Gas CC capacity Present In 1 View:Used ByFeedback Loops: 1,238 (7.5%) (+) 532 [23,30] (-) 530 [23,30] (?) 176 [27,30] |
SWIS2050(2R) | #257 F,A | Gas CC retirement (MW/Hour) = IF THEN ELSE(Gas CC capacity>0, Initial gas CC capacity/(Gas CC retirement period*Hours per year),0) Present In 2 Views:Used ByFeedback Loops: 397 (2.4%) (+) 44 [18,30] (-) 44 [2,30] (?) 309 [17,30] |
SWIS2050(2R) | #258 A | Gas CC retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CC phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #261 A | Gas CC% (Dmnl) = ZIDZ(Gas CC generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #263 A | Gas CT % (Dmnl) = ZIDZ(Gas CT generation,Network thermal load) Present In 1 View:Used By |
SWIS2050(2R) | #264 F,A | Gas CT additions (MW/Hour) = (Gas CT capacity*Required thermal network additions-Gas CT capacity)/(Thermal plant construction time*Hours per year)+(Addtl Gas CT reqd/"1 hour") Present In 1 View:Used By
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SWIS2050(2R) | #268 F,A | Gas CT emissions in (tCO2e) = Hourly gas CT emissions*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #269 F,A | Gas CT emissions out (tCO2e) = IF THEN ELSE(Hour of the year=0, Cumulative gas CT emissions/"1 hour", 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #271 A | Gas CT fuel costs ($/(MW*Hour)) = Gas fuel unit cost*"GJ/MWh"/Gas CT TE Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #272 A | Gas CT generation (MW) = min((Network thermal load-Coal generation-Gas CC generation),Gas CT capacity) Present In 2 Views:Used ByFeedback Loops: 6,857 (41.7%) (+) 2,381 [15,30] (-) 2,408 [7,30] (?) 2,068 [14,30] |
SWIS2050(2R) | #273 A | Gas CT hourly capex ($/MW/Hour) = Gas CT capex*Gas CT PMT/(Hours per year*365/12)/Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #274 A | Gas CT hourly costs per MWh ($/(MW*Hour)) = Gas CT hourly capex+Gas CT VOM+(Gas CT FOM/Nominal Gas CT CF/(Hours per year*365/12))+Gas CT fuel costs Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #275 A | Gas CT hourly operating costs ($/Hour) = Gas CT capacity*Gas CT hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #276 A | Gas CT operating CF (Dmnl) = XIDZ( Cumulative gas CT operating hours,Time,Nominal Gas CT CF) Present In 2 Views:Used By |
SWIS2050(2R) | #277 F,A | Gas CT operating hours (Dmnl) = Gas CT generation/Gas CT capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #280 A | Gas CT retirement period (year) = IF THEN ELSE(Thermal network additions switch=0, Gas CT phase out period , 10000 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #281 F,A | Gas CT retirements (MW/Hour) = IF THEN ELSE(Gas CT capacity>0, Initial gas CT capacity/(Gas CT retirement period*Hours per year),0) Present In 2 Views:Used By
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SWIS2050(2R) | #286 F,A | Gen curtailed in (MW) = Generation curtailed*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #287 F,A | Gen curtailed out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative generation curtailed/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #288 A | Generation curtailed (MW) = -Negative network load-Network storage charge Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #290 A,T | GF- comm array (kW/system) "GF- comm array"([(0,0)-(30,300)],(0,265),(3.30275,178.947),(7.157,100),(12.5688,40.7895),(19.63,6),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #291 A,T | GF- comm storage exports (Dmnl) "GF- comm storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #292 A,T | GF- comm storage imports (Dmnl) "GF- comm storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #293 A,T | GF- resi array (kW/system) "GF- resi array"([(0,0)-(30,10)],(0,7.75),(1,7),(4.31193,4.91228),(9.309,2.9),(13.7615,1.66667),(19.633,0.48),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #294 A,T | GF- resi storage exports (Dmnl) "GF- resi storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #295 A,T | GF- resi storage imports (Dmnl) "GF- resi storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #296 A,T | GF- storage (Hours) "GF- storage"([(0,0)-(20,10)],(0,0),(1,0),(2,1),(3,2),(4,3),(5,3),(7,3),(9,2),(10,1.5),(20,1))
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #297 A,T | GF-comm PV (Dmnl) "GF-comm PV"([(0,0.5)-(20,1)],(0,1),(1,0.741),(2,0.657),(3,0.598),(4,0.572),(5,0.556),(7,0.536),(9,0.525),(20,0.5))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #299 A,T | GF-resi PV (Dmnl) "GF-resi PV"([(0,0.4)-(10,1)],(0,1),(1,0.799),(1.34557,0.744737),(2,0.682),(3,0.629),(5,0.583),(7,0.56),(9,0.547),(10,0.545))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #300 A,T | GF-solar PV penetration (Dmnl) "GF-solar PV penetration"([(0,0)-(30,1)],(0,1),(1.00917,0.644737),(2,0.39),(3,0.23),(4,0.13),(5,0.08),(6,0.062),(8,0.05),(30,0),(100,0))
Description: Modified on 24 Jan to reflect new payback analysis
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #305 A | Hour of the day (Hour) = MODULO(Time, 24 ) Present In 2 Views:Used By |
SWIS2050(2R) | #306 A | Hour of the year (Hour) = MODULO(Time, 288 ) Present In 7 Views:
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SWIS2050(2R) | #307 F,A | Hourly BG in (MW) = Biogas generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 126 [10,30] (-) 137 [20,30] (?) 105 [24,30] |
SWIS2050(2R) | #308 F,A | Hourly BG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative biogas generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #309 F,A | Hourly CG in (MW) = Coal generation*365/12 Present In 1 View:Used ByFeedback Loops: 1,608 (9.8%) (+) 589 [15,30] (-) 595 [14,30] (?) 424 [14,30] |
SWIS2050(2R) | #310 F,A | Hourly CG out (MW) = IF THEN ELSE(Hour of the year=0, Cum coal generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #311 A | Hourly coal emissions (tCO2e) = Coal generation*Coal emissions per MWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #312 A | Hourly demand balance (MW) = Net hourly network demand-Hourly network generation plus storage discharges Present In 2 Views:Used ByFeedback Loops: 3,045 (18.5%) (+) 618 [15,30] (-) 618 [7,30] (?) 1,809 [14,30] |
SWIS2050(2R) | #313 F,A | Hourly demand met in (MW) = Total hourly demand met by customers*365/12 Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #314 F,A | Hourly demand met out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative demand met by customers/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #315 A | Hourly gas CC emissions (tCO2e) = Gas CC emissions per MWh*Gas CC generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #316 A | Hourly gas CT emissions (tCO2e) = Gas CT emission per MWh*Gas CT generation Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #317 F,A | Hourly GCC in (MW) = Gas CC generation*365/12 Present In 1 View:Used ByFeedback Loops: 2,892 (17.6%) (+) 1,064 [15,30] (-) 1,084 [14,30] (?) 744 [14,30] |
SWIS2050(2R) | #318 F,A | Hourly GCC out (MW) = IF THEN ELSE(Hour of the year=0, Cum gas CC generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #319 F,A | Hourly GCT in (MW) = Gas CT generation*365/12 Present In 1 View:Used ByFeedback Loops: 6,102 (37.1%) (+) 2,295 [15,30] (-) 2,327 [14,30] (?) 1,480 [14,30] |
SWIS2050(2R) | #320 F,A | Hourly GCT out (MW) = IF THEN ELSE(Hour of the year=0, Cum CT generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #321 F,A | Hourly LSS in (MW) = LS solar PV generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #322 F,A | Hourly LSS out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative LS solar generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #323 A | Hourly network generation plus storage discharges (MW) = Network storage discharge+Total network thermal generation+Demand met by network renewables Present In 1 View:Used ByFeedback Loops: 2,875 (17.5%) (+) 558 [15,30] (-) 564 [7,30] (?) 1,753 [14,30] |
SWIS2050(2R) | #324 F,A | Hourly NL in (MW) = Total network load*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #325 F,A | Hourly NL out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative network load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #326 F,A | Hourly NS losses in (MW) = Network storage losses*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #327 F,A | Hourly NS losses out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage losses/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #328 F,A | Hourly NTL in (MW) = Network thermal load*365/12 Present In 1 View:Used ByFeedback Loops: 1,668 (10.2%) (+) 422 [18,30] (-) 433 [17,30] (?) 813 [17,30] |
SWIS2050(2R) | #329 F,A | Hourly NTL out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network thermal load/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #330 F,A | Hourly TNU in (MW) = Thermal network undergeneration*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #331 F,A | Hourly TNU out (MW) = IF THEN ELSE(Hour of the year=0, Cum thermal network undergeneration/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #332 F,A | Hourly WaveG in (MW) = Wave generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #333 F,A | Hourly WaveG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wave generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #334 F,A | Hourly WG in (MW) = Wind generation*365/12 Present In 1 View:Used ByFeedback Loops: 368 (2.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 368 [10,30] |
SWIS2050(2R) | #335 F,A | Hourly WG out (MW) = IF THEN ELSE(Hour of the year=0, Cumulative wind generation/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #337 A | Indicated comm PV array (kW/system) = "GF- comm array"(Commercial PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #338 A | Indicated resi PV array (kW/system) = "GF- resi array"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 3,171 (19.3%) (+) 1,022 [8,30] (-) 1,044 [5,30] (?) 1,105 [24,30] |
SWIS2050(2R) | #339 A | Industry energy demand (GWh/year) = Energy intensity*GSP Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #340 A | Initial annual network thermal load (MW*Hour) = SAMPLE IF TRUE(Time=0, Cumulative network thermal load , 0) Present In 1 View:Used By |
SWIS2050(2R) | #343 LI,A | Initial comm FIT fraction (Dmnl) = Initial commercial FIT/Initial commercial tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #353 LI,A | Initial residential FIT fraction (Dmnl) = Initial residential FIT/Initial residential tariff Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #355 A | Initial thermal plant (MW) = Initial coal capacity+Initial gas CC capacity+Initial gas CT capacity Present In 1 View:Used By |
SWIS2050(2R) | #360 A | Large customer hourly demand (kW/customer) = Ave hourly large customer demand*Comm demand lookup(Hour of the year/"1 hour")/kWh Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #361 A | Large customer tariff ($/kWh) = Initial large customer tariff*Network generation tariff multiplier Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #363 F,A | LS solar additions (MW/Hour) = LSS replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #364 A | LS solar capex ($/MW) = {3.86e+006}Unit cost of utility scale solar PV*"kW/MW" Description: Assume single axisAETA 2012 cost is 3860 $/kWAcil Allen cost is 2900 $/kW Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #367 A | LS solar hourly capex ($/MW/Hour) = LS solar capex*LS solar PMT/(Hours per year*365/12)/LS solar CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #368 A | LS solar hourly costs per MWh ($/(MW*Hour)) = LS solar hourly capex+LS solar VOM+(LS solar FOM/LS solar CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #369 A | LS solar hourly operating costs ($/Hour) = LS Solar PV capacity*LS solar hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #374 A | LS solar PV generation (MW) = LS Solar PV capacity*LS solar CF*LS solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #375 F,A | LS solar retirements (MW/Hour) = (LS Solar PV capacity-(LS Solar PV capacity*Renewables adjustments))/(Solar capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #377 A | LSS replacements (MW/Hour) = Total retired thermal generation*LSS share by cost/LS solar CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #379 A | LSS share by cost (Dmnl) = "A-Ave/LSS"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #380 A | Max coal generation capacity (MW) = 0.72*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #381 A | Max comm PV systems (Systems) = Commercial customers*Maximum comm PV generation*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #382 A | Max gas CC generation capacity (MW) = 0.9*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #383 A | Max resi PV systems (Systems) = Maximum resi PV penetration*Residential customers*"1 system/ customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #385 A | Maximum network storage (Hour*MW) = (Annual private PV generation+Annual network renewables generation)/Network generation storage ratio Present In 1 View:Used ByFeedback Loops: 1,720 (10.5%) (+) 559 [21,30] (-) 597 [20,30] (?) 564 [20,30] |
SWIS2050(2R) | #387 A | Min coal generation capacity (MW) = 0.67*Coal capacity Present In 1 View:Used ByFeedback Loops: 468 (2.8%) (+) 105 [15,30] (-) 111 [14,30] (?) 252 [22,30] |
SWIS2050(2R) | #388 A | Min gas CC generation capacity (MW) = 0.2*Gas CC capacity Present In 1 View:Used ByFeedback Loops: 288 (1.8%) (+) 69 [15,30] (-) 72 [14,30] (?) 147 [22,30] |
SWIS2050(2R) | #390 A | Month of the year (Dmnl) = time lookup (Hour of the year/"1 hour") Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #393 A | Negative network load (MW) = min((Total network load-Network renewables generation),0) Present In 1 View:Used ByFeedback Loops: 7,080 (43.1%) (+) 2,533 [18,30] (-) 2,547 [17,30] (?) 2,000 [17,30] |
SWIS2050(2R) | #394 A | Net annual network demand (Hour*MW) = Total annual demand in MWh-Annual total demand met by customers Present In 1 View:Used ByFeedback Loops: 232 (1.4%) (+) 30 [27,30] (-) 28 [27,30] (?) 174 [27,30] |
SWIS2050(2R) | #395 A | Net comm PV production (kW) = Commercial solar generation-Commercial hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #396 A | Net hourly network demand (MW) = Total hourly demand-Total hourly demand met by customers Present In 1 View:Used ByFeedback Loops: 170 (1.0%) (+) 60 [24,30] (-) 54 [24,30] (?) 56 [28,30] |
SWIS2050(2R) | #397 A | Net private storage hours (Hour) = Total private storage capacity/Total private PV capacity Present In 1 View:Used By |
SWIS2050(2R) | #398 A | Net resi PV production (kW) = Residential solar generation-Residential hourly demand Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #399 F,A | Net residential customer growth (Customers/Hour) = Residential customers*Annual residential growth fraction/Hours per year Present In 1 View:Used By
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SWIS2050(2R) | #400 A | Network battery storage capacity (MW*Hour) = Network storage capacity*"PHES - battery split" Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #402 A | Network generation tariff multiplier (Dmnl) = IF THEN ELSE(Tariff multiplier switch<>0, ((Network unit cost/Initial network unit cost-1)*Generation fraction of tariff)+1,1) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #403 A | Network load from comm solar premises (kW) = Comm solar imports-Comm solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #404 A | Network load from comm storage premises (kW) = Comm storage imports-Comm storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #405 A | Network load from resi solar only home (kW) = Resi solar imports-Resi solar exports Present In 2 Views:Used ByFeedback Loops: 334 (2.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 334 [24,30] |
SWIS2050(2R) | #406 A | Network load from resi storage home (kW) = Resi storage imports-Resi storage exports Present In 2 Views:Used ByFeedback Loops: 1,991 (12.1%) (+) 607 [23,30] (-) 613 [23,30] (?) 771 [24,30] |
SWIS2050(2R) | #407 A | Network renewables generation (MW) = LS solar PV generation+Wave generation+Wind generation+Biogas generation Present In 2 Views:Used ByFeedback Loops: 2,580 (15.7%) (+) 274 [15,30] (-) 266 [14,30] (?) 2,040 [14,30] |
SWIS2050(2R) | #409 F,A | Network storage charge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Negative network load<=(Maximum network storage/"1 hour"), -Negative network load*Network storage switch,0) Present In 1 View:Used ByFeedback Loops: 8,802 (53.6%) (+) 3,093 [2,30] (-) 3,145 [3,30] (?) 2,564 [17,30] |
SWIS2050(2R) | #410 F,A | Network storage discharge (MW) = IF THEN ELSE((Network storage SoC/"1 hour")-Positive network load<(Network storage minimum discharge level*Network storage capacity/"1 hour"),0,Positive network load) Present In 1 View:Used By
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SWIS2050(2R) | #412 F,A | Network storage losses (MW) = Network storage charge*Network storage loss fraction Present In 1 View:Used ByFeedback Loops: 3,821 (23.3%) (+) 1,369 [18,30] (-) 1,375 [3,30] (?) 1,077 [18,30] |
SWIS2050(2R) | #416 A | Network thermal load (MW) = Positive network load-Network storage discharge Present In 1 View:Used By
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SWIS2050(2R) | #417 A | Network unit cost ($/(MW*Hour)) = XIDZ( Annual network generation and storage costs,Annual network generation,Initial network unit cost) Present In 1 View:Used ByFeedback Loops: 13,004 (79.2%) (+) 5,260 [20,30] (-) 5,324 [20,30] (?) 2,420 [24,30] |
SWIS2050(2R) | #418 A | Nominal annual thermal generation capacity (MW*Hour/year) = Nominal coal annual generation capacity+Nominal gas CC annual generation capacity+Nominal gas CT annual generation capacity Present In 1 View:Used ByFeedback Loops: 967 (5.9%) (+) 123 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #419 A | Nominal coal annual generation capacity (MW*Hour/year) = Coal capacity*Nominal Coal CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #422 A | Nominal gas CC annual generation capacity (MW*Hour/year) = Gas CC capacity*Nominal Gas CC CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 1 [6,6] (-) 0 [0,0] |
SWIS2050(2R) | #425 A | Nominal gas CT annual generation capacity (MW*Hour/year) = Gas CT capacity*Nominal Gas CT CF*Hours per year*365/12 Present In 1 View:Used ByFeedback Loops: 965 (5.9%) (+) 121 [6,30] (-) 124 [14,30] (?) 720 [20,30] |
SWIS2050(2R) | #428 A | Non-solar comm premises (Dmnl) = ((Commercial customers*"1 system/ customer")-Commercial PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #429 A | Non-solar homes (Dmnl) = ((Residential customers*"1 system/ customer")-Residential PV systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #430 A | Normal annual comm electricity charges ($/(year*customer)) = Annual demand per comm customer*Commercial tariff/"GW/kW" Present In 1 View:Used By |
SWIS2050(2R) | #431 A | Normal annual large cust electricity charges ($/(year*customer)) = Annual demand per large customer/"GW/kW"*Large customer tariff Present In 1 View:Used By |
SWIS2050(2R) | #432 A | Normal annual resi electricity charges ($/(year*customer)) = Ave annual residential demand per customer*Residential tariff Present In 1 View:Used By |
SWIS2050(2R) | #433 F,A | NS discharge in (MW) = Network storage discharge*365/12 Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #434 F,A | NS discharge out (MW) = IF THEN ELSE(Hour of the year =0, Cumulative network storage discharge/"1 hour" , 0 ) Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [2,2] |
SWIS2050(2R) | #436 A | Optimum comm storage hours (Hours) = "GF- storage"(Commercial SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #437 A | Optimum resi storage hours (Hours) = "GF- storage"(Residential SCM) Present In 2 Views:Used ByFeedback Loops: 594 (3.6%) (+) 292 [25,30] (-) 302 [25,30] |
SWIS2050(2R) | #439 A | PHES capacity (MW*Hour) = "PHES - battery split"*Network storage capacity Present In 1 View:Used ByFeedback Loops: 818 (5.0%) (+) 302 [21,30] (-) 314 [21,30] (?) 202 [25,30] |
SWIS2050(2R) | #441 A | PHES FOM ($/(MW*Hour*Hour)) = PHES capex per MWh*"PHES opex %"/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #442 A | PHES hourly capex ($/(MW*Hour*Hour)) = PHES capex per MWh*PHES PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #443 A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) = PHES hourly capex+PHES FOM Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #447 A | Positive network load (MW) = max(Total network load-Network renewables generation,0) Present In 1 View:Used ByFeedback Loops: 6,864 (41.8%) (+) 2,379 [15,30] (-) 2,395 [14,30] (?) 2,090 [14,30] |
SWIS2050(2R) | #449 A | Renewables adjustments (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,1,Annual demand balance ratio) Present In 2 Views:Used ByFeedback Loops: 2,168 (13.2%) (+) 213 [10,30] (-) 224 [14,30] (?) 1,731 [10,30] |
SWIS2050(2R) | #450 A | Renewables total share (1) = Biogas share+LSS share+Wave share+Wind share Present In 1 View:Used By |
SWIS2050(2R) | #451 A | Required thermal network additions (Dmnl) = IF THEN ELSE(Thermal network additions switch=1,"GF-network additions"("Thermal network annual load / capacity"),1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #452 A,T | Resi demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New load profiles Dec17' , 'q' , 'r5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #454 A | Resi PV additions (Dmnl) = "GF-solar PV penetration"(Residential PV payback/"1 year") Present In 1 View:Used ByFeedback Loops: 1,753 (10.7%) (+) 846 [20,30] (-) 856 [20,30] (?) 51 [27,30] |
SWIS2050(2R) | #455 A | Resi PV capex ($/system) = Ave resi PV array*Unit cost of residential solar PV Present In 1 View:Used ByFeedback Loops: 1 (0.0%) (+) 0 [0,0] (-) 1 [5,5] |
SWIS2050(2R) | #456 A | Resi PV import fraction (Dmnl) = "GF-resi PV"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 2 (0.0%) (+) 1 [8,8] (-) 1 [9,9] |
SWIS2050(2R) | #459 A | Resi solar exports (kW) = Excess resi generation Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #460 A | Resi solar imports (kW) = Resi storage demand Present In 1 View:Used ByFeedback Loops: 167 (1.0%) (+) 0 [0,0] (-) 0 [0,0] (?) 167 [24,30] |
SWIS2050(2R) | #461 A,T | Resi solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #463 A | Resi storage capacity per system (kW*Hour) = Ave resi PV array*Optimum resi storage hours*"1 system" Present In 2 Views:Used ByFeedback Loops: 1,226 (7.5%) (+) 607 [23,30] (-) 613 [23,30] (?) 6 [30,30] |
SWIS2050(2R) | #464 A | Resi storage capex ($/customer) = Residential SCM*Ave hourly residential demand*Optimum resi storage hours*Unit cost of residential storage Present In 1 View:Used ByFeedback Loops: 390 (2.4%) (+) 195 [25,30] (-) 195 [26,30] |
SWIS2050(2R) | #465 F,A | Resi storage charge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")+Excess resi generation<=(Resi storage capacity per system/"1 hour"), Excess resi generation , (Resi storage capacity per system-Resi storage per system)/"1 hour" ) Present In 1 View:Used ByFeedback Loops: 1,180 (7.2%) (+) 434 [3,30] (-) 442 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #466 A | Resi storage demand (kW) = IF THEN ELSE(Net resi PV production<=0, -Net resi PV production , 0) Present In 1 View:Used ByFeedback Loops: 530 (3.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 530 [24,30] |
SWIS2050(2R) | #467 F,A | Resi storage discharge (kW) = IF THEN ELSE((Resi storage per system/"1 hour")-Resi storage demand>=Minimum private storage discharge*(Resi storage capacity per system/"1 hour"), Resi storage demand, 0 ) Present In 1 View:Used ByFeedback Loops: 1,179 (7.2%) (+) 435 [24,30] (-) 440 [2,30] (?) 304 [25,30] |
SWIS2050(2R) | #468 A | Resi storage export fraction (Dmnl) = "GF- resi storage exports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #469 A | Resi storage exports (kW) = Excess resi generation-Resi storage charge Present In 1 View:Used ByFeedback Loops: 908 (5.5%) (+) 274 [23,30] (-) 268 [24,30] (?) 366 [24,30] |
SWIS2050(2R) | #470 A | Resi storage import fraction (Dmnl) = "GF- resi storage imports"(Residential SCM) Present In 1 View:Used ByFeedback Loops: 105 (0.6%) (+) 50 [28,30] (-) 55 [27,30] |
SWIS2050(2R) | #471 A | Resi storage imports (kW) = Resi storage demand-Resi storage discharge Present In 1 View:Used ByFeedback Loops: 1,083 (6.6%) (+) 333 [24,30] (-) 345 [23,30] (?) 405 [24,30] |
SWIS2050(2R) | #472 F,A | Resi storage losses (kW) = Resi storage charge*Battery storage loss fraction Present In 1 View:Used ByFeedback Loops: 176 (1.1%) (+) 66 [3,30] (-) 71 [27,30] (?) 39 [28,30] |
SWIS2050(2R) | #473 A | Resi storage penetration (Dmnl) = "GF-solar PV penetration"(Residential storage payback/"1 year") Present In 1 View:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #477 A | Residential demand met by solar PV (kW) = min(Residential solar generation,Residential hourly demand) Present In 1 View:Used By |
SWIS2050(2R) | #478 A | Residential FIT ($/kWh) = Residential tariff*Residential FIT fraction Present In 2 Views:Used ByFeedback Loops: 2,829 (17.2%) (+) 1,127 [21,30] (-) 1,195 [21,30] (?) 507 [25,30] |
SWIS2050(2R) | #480 A | Residential hourly demand (kW) = Ave hourly residential demand*"1 customer"*Resi demand lookup(Hour of the year/"1 hour")/kWh Present In 2 Views:Used By
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SWIS2050(2R) | #481 A | Residential PV capacity (MW) = Ave resi PV array*Residential PV systems/"kW/MW" Present In 1 View:Used ByFeedback Loops: 484 (2.9%) (+) 236 [21,30] (-) 248 [22,30] |
SWIS2050(2R) | #482 A | Residential PV payback (Years) = Resi PV capex/Annual resi PV savings*"1 system/ customer" Present In 3 Views:Used ByFeedback Loops: 4,924 (30.0%) (+) 1,868 [8,30] (-) 1,900 [5,30] (?) 1,156 [24,30] |
SWIS2050(2R) | #483 A | Residential PV penetration (Dmnl) = Residential PV systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #485 A | Residential SCM (Dmnl) = Ave resi PV array/Ave hourly residential demand*"System/customer"*kWh Present In 2 Views:Used By
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SWIS2050(2R) | #486 A | Residential solar generation (kW) = Ave resi PV array*"1 system"*Private PV capacity factor*Resi solar lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,099 (6.7%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,099 [24,30] |
SWIS2050(2R) | #487 A | Residential storage capacity (Hour*MW) = Resi storage capacity per system*Residential storage systems/"1 system"/"kW/MW" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #488 A | Residential storage payback (Years) = min(Resi storage capex/Addtional resi storage savings,100) Present In 2 Views:Used ByFeedback Loops: 2,182 (13.3%) (+) 1,059 [20,30] (-) 1,069 [20,30] (?) 54 [27,30] |
SWIS2050(2R) | #489 A | Residential storage penetration (Dmnl) = Residential storage systems/Residential customers/"1 system/ customer" Present In 1 View:Used By |
SWIS2050(2R) | #490 A | Residential storage savings ($/(customer*year)) = Ave annual residential demand per customer*((Residential tariff*(1-Resi storage import fraction))+(Resi storage export fraction*Residential FIT)) Present In 1 View:Used ByFeedback Loops: 1,001 (6.1%) (+) 476 [21,30] (-) 498 [20,30] (?) 27 [27,30] |
SWIS2050(2R) | #492 A | Residential tariff ($/kWh) = Initial residential tariff*Network generation tariff multiplier Present In 3 Views:Used By
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SWIS2050(2R) | #493 A | Retired coal generation (MW/Hour) = Coal retirement*Nominal Coal CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #494 A | Retired gas CC generation (MW/Hour) = Gas CC retirement*Nominal Gas CC CF Present In 1 View:Used ByFeedback Loops: 396 (2.4%) (+) 44 [18,30] (-) 43 [17,30] (?) 309 [17,30] |
SWIS2050(2R) | #495 A | Retired gas CT generation (MW/Hour) = Gas CT retirements*Nominal Gas CT CF Present In 1 View:Used ByFeedback Loops: 1,092 (6.6%) (+) 99 [15,30] (-) 93 [14,30] (?) 900 [14,30] |
SWIS2050(2R) | #498 A | Solar only comm premises (Dmnl) = (Commercial PV systems-Commercial storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #499 A | Solar only homes (Dmnl) = (Residential PV systems-Residential storage systems)/"1 system" Present In 1 View:Used ByFeedback Loops: 1,663 (10.1%) (+) 814 [20,30] (-) 807 [21,30] (?) 42 [27,30] |
SWIS2050(2R) | #501 A | Sum of A-D (Dmnl) = "A-Ave/LSS"+"B-Ave/Wind"+"C-Ave/Wave"+"D-Ave/Bio" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #502 F,A | Swap (MW) = IF THEN ELSE(Chg in network storage capacity<>0, Network storage capacity/"1 hour" ,0 ) Present In 1 View:Used ByFeedback Loops: 2,423 (14.8%) (+) 894 [5,30] (-) 896 [2,30] (?) 633 [20,30] |
SWIS2050(2R) | #506 A | Thermal network annual load / capacity (Dmnl) = XIDZ(Annual network thermal load/"1 year",Nominal annual thermal generation capacity,1) Present In 1 View:Used ByFeedback Loops: 2,635 (16.0%) (+) 545 [6,30] (-) 557 [14,30] (?) 1,533 [17,30] |
SWIS2050(2R) | #507 A | Thermal network undergeneration (MW) = Network thermal load-Total network thermal generation Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #510 A,T | time lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Times' , 'a' , 'b5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #512 A | Total annual demand (GWh/year) = Annual commercial customer demand+Annual large customer demand+Annual residential customer demand Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #513 A | Total annual demand in MWh (MW*Hour) = SAMPLE IF TRUE(Hour of the year=0, Total annual demand/Correction factor*Year 0*"1 year"*"MW/GW",0) Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #514 A | Total annual system generation (MW*Hour) = Annual network generation-Annual network storage losses+Annual private PV generation-Annual generation curtailed Present In 1 View:Used By |
SWIS2050(2R) | #515 A | Total commercial network load (MW) = (Total network load from comm solar premises+Total network load from comm storage premises+"Total network load from non-solar comm premises")/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #516 A | Total hourly demand (MW) = ("Total hourly demand - resi customers"+"Total hourly demand - comm customers"+"Total hourly demand - large customers")/"kW/MW" Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #517 A | Total hourly demand - comm customers (kW) = Commercial customers*Commercial hourly demand/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #518 A | Total hourly demand - large customers (kW) = Large customer hourly demand*Large customers Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #519 A | Total hourly demand - resi customers (kW) = Residential hourly demand*Residential customers/"1 customer" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #520 A | Total hourly demand met by customers (MW) = Total hourly demand-max(Total network load,0) Present In 2 Views:Used ByFeedback Loops: 402 (2.4%) (+) 90 [24,30] (-) 82 [24,30] (?) 230 [27,30] |
SWIS2050(2R) | #521 A | Total network load (MW) = Total residential network load+Total commercial network load+("Total hourly demand - large customers"/"kW/MW") Present In 2 Views:Used By
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SWIS2050(2R) | #522 A | Total network load from comm solar premises (kW) = Network load from comm solar premises*Solar only comm premises Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #523 A | Total network load from comm storage premises (kW) = Commercial storage systems*Network load from comm storage premises/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #524 A | Total network load from non-solar comm premises (kW) = Commercial hourly demand*"Non-solar comm premises" Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #525 A | Total network load from non-solar homes (kW) = "Non-solar homes"*Residential hourly demand Present In 1 View:Used ByFeedback Loops: 440 (2.7%) (+) 206 [21,30] (-) 216 [20,30] (?) 18 [27,30] |
SWIS2050(2R) | #526 A | Total network load from solar only homes (kW) = Network load from resi solar only home*Solar only homes Present In 1 View:Used ByFeedback Loops: 1,997 (12.2%) (+) 814 [20,30] (-) 807 [21,30] (?) 376 [24,30] |
SWIS2050(2R) | #527 A | Total network load from storage home (kW) = Residential storage systems*Network load from resi storage home/"1 system" Present In 1 View:Used ByFeedback Loops: 3,581 (21.8%) (+) 1,374 [20,30] (-) 1,391 [20,30] (?) 816 [24,30] |
SWIS2050(2R) | #528 A | Total network thermal generation (MW) = Coal generation+Gas CC generation+Gas CT generation Present In 1 View:Used ByFeedback Loops: 1,889 (11.5%) (+) 324 [15,30] (-) 314 [7,30] (?) 1,251 [17,30] |
SWIS2050(2R) | #529 A | Total private PV capacity (MW) = Commercial PV capacity+Residential PV capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #530 A | Total private PV generation (MW*Hour/year) = Annual commercial PV generation+Annual residential PV generation Present In 1 View:Used ByFeedback Loops: 968 (5.9%) (+) 472 [21,30] (-) 496 [22,30] |
SWIS2050(2R) | #531 A | Total private storage capacity (Hour*MW) = Commercial storage capacity+Residential storage capacity Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #532 A | Total residential network load (MW) = ("Total network load from non-solar homes"+Total network load from solar only homes+Total network load from storage home)/"kW/MW" Present In 1 View:Used ByFeedback Loops: 6,018 (36.6%) (+) 2,394 [20,30] (-) 2,414 [20,30] (?) 1,210 [24,30] |
SWIS2050(2R) | #533 A | Total retired thermal generation (MW/Hour) = IF THEN ELSE(Thermal network additions switch=0, Retired coal generation+Retired gas CC generation+Retired gas CT generation,0) Present In 1 View:Used ByFeedback Loops: 1,884 (11.5%) (+) 187 [15,30] (-) 179 [14,30] (?) 1,518 [14,30] |
SWIS2050(2R) | #534 A | Unit cost of comm battery storage ($/kWh) = Commercial storage fraction*Unit cost of residential storage Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #535 A | Unit cost of commercial solar PV ($/kW) = Commercial solar PV fraction*Unit cost of residential solar PV Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #538 A | Unit cost of utility scale battery storage ($/kWh) = Unit cost of residential storage*Utility battery storage fraction Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #539 A | Unit cost of utility scale solar PV ($/kW) = Unit cost of residential solar PV*Utility solar PV fraction Present In 2 Views:Used By
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SWIS2050(2R) | #540 A | USBS FOM ($/(MW*Hour*Hour)) = USBS opex/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #543 A | Utility scale battery storage capex per MWh ($/(MW*Hour)) = Unit cost of utility scale battery storage*"kWh/MWh" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #544 A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) = USBS FOM+Utility scale hourly capex Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #546 A | Utility scale hourly capex ($/(MW*Hour*Hour)) = Utility scale battery storage capex per MWh*Utility scale battery storage PMT/(Hours per year*365/12) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #548 F,A | Wave additions (MW/Hour) = Wave replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #556 A | Wave generation (MW) = Wave capacity*Wave CF*Wave lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #557 A | Wave hourly capex ($/MW/Hour) = Wave capex*Wave PMT/(Hours per year*365/12)/Wave CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #558 A | Wave hourly costs per MWh ($/(MW*Hour)) = Wave hourly capex+(Wave FOM/Wave CF/(Hours per year*365/12))+Wave VOM Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #559 A | Wave hourly operating costs ($/Hour) = Wave capacity*Wave hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #563 A | Wave replacements (MW/Hour) = Total retired thermal generation*Wave share by cost/Wave CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #564 F,A | Wave retirements (MW/Hour) = (Wave capacity-(Wave capacity*Renewables adjustments))/(Wave capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #566 A | Wave share by cost (Dmnl) = "C-Ave/Wave"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #568 F,A | Wind additions (MW/Hour) = Wind replacements Present In 1 View:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #575 A | Wind generation (MW) = Wind capacity*Wind CF*Wind lookup(Hour of the year/"1 hour") Present In 1 View:Used ByFeedback Loops: 1,013 (6.2%) (+) 0 [0,0] (-) 0 [0,0] (?) 1,013 [10,30] |
SWIS2050(2R) | #576 A | Wind hourly capex ($/MW/Hour) = Wind capex*Wind PMT/(Hours per year*365/12)/Wind CF Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #577 A | Wind hourly costs per MWh ($/(MW*Hour)) = Wind hourly capex+Wind VOM+(Wind FOM/Wind CF/(Hours per year*365/12)) Present In 3 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #578 A | Wind hourly operating costs ($/Hour) = Wind capacity*Wind hourly costs per MWh Present In 1 View:Used By |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #582 A | Wind replacements (MW/Hour) = Total retired thermal generation*Wind share by cost/Wind CF Present In 2 Views:Used ByFeedback Loops: 471 (2.9%) (+) 0 [0,0] (-) 0 [0,0] (?) 471 [14,30] |
SWIS2050(2R) | #583 F,A | Wind retirements (MW/Hour) = (Wind capacity-(Wind capacity*Renewables adjustments))/(Wind capacity adj time*Hours per year) Present In 1 View:Used ByFeedback Loops: 543 (3.3%) (+) 0 [0,0] (-) 1 [2,2] (?) 542 [10,30] |
SWIS2050(2R) | #585 A | Wind share by cost (Dmnl) = "B-Ave/Wind"/"Sum of A-D" Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #587 A | Year 0 (Dmnl) = IF THEN ELSE(Time=0, 0 , 1 ) Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #588 A | Year label (year ) = TIME BASE (start year,years per hour) Present In 1 View:Used By |
| Top | (Type) Subscripts (0 Variables) | ||
| Variable Name And Description | |||
| Top | (Type) Data (19 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #162 A,T | Comm demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Load profiles' , 'r' , 'ai5' )
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #169 A,T | Comm solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Solar resource' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #290 A,T | GF- comm array (kW/system) "GF- comm array"([(0,0)-(30,300)],(0,265),(3.30275,178.947),(7.157,100),(12.5688,40.7895),(19.63,6),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #291 A,T | GF- comm storage exports (Dmnl) "GF- comm storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #292 A,T | GF- comm storage imports (Dmnl) "GF- comm storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #293 A,T | GF- resi array (kW/system) "GF- resi array"([(0,0)-(30,10)],(0,7.75),(1,7),(4.31193,4.91228),(9.309,2.9),(13.7615,1.66667),(19.633,0.48),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #294 A,T | GF- resi storage exports (Dmnl) "GF- resi storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #295 A,T | GF- resi storage imports (Dmnl) "GF- resi storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #296 A,T | GF- storage (Hours) "GF- storage"([(0,0)-(20,10)],(0,0),(1,0),(2,1),(3,2),(4,3),(5,3),(7,3),(9,2),(10,1.5),(20,1))
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #297 A,T | GF-comm PV (Dmnl) "GF-comm PV"([(0,0.5)-(20,1)],(0,1),(1,0.741),(2,0.657),(3,0.598),(4,0.572),(5,0.556),(7,0.536),(9,0.525),(20,0.5))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #299 A,T | GF-resi PV (Dmnl) "GF-resi PV"([(0,0.4)-(10,1)],(0,1),(1,0.799),(1.34557,0.744737),(2,0.682),(3,0.629),(5,0.583),(7,0.56),(9,0.547),(10,0.545))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #300 A,T | GF-solar PV penetration (Dmnl) "GF-solar PV penetration"([(0,0)-(30,1)],(0,1),(1.00917,0.644737),(2,0.39),(3,0.23),(4,0.13),(5,0.08),(6,0.062),(8,0.05),(30,0),(100,0))
Description: Modified on 24 Jan to reflect new payback analysis
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #452 A,T | Resi demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New load profiles Dec17' , 'q' , 'r5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #461 A,T | Resi solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #510 A,T | time lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Times' , 'a' , 'b5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| Top | (Type) Game (0 Variables) | ||
| Variable Name And Description | |||
| Top | (Type) Lookup (19 Variables) | ||
| Variable Name And Description | SWIS2050(2R) | #162 A,T | Comm demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Load profiles' , 'r' , 'ai5' )
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #169 A,T | Comm solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Solar resource' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #290 A,T | GF- comm array (kW/system) "GF- comm array"([(0,0)-(30,300)],(0,265),(3.30275,178.947),(7.157,100),(12.5688,40.7895),(19.63,6),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #291 A,T | GF- comm storage exports (Dmnl) "GF- comm storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #292 A,T | GF- comm storage imports (Dmnl) "GF- comm storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #293 A,T | GF- resi array (kW/system) "GF- resi array"([(0,0)-(30,10)],(0,7.75),(1,7),(4.31193,4.91228),(9.309,2.9),(13.7615,1.66667),(19.633,0.48),(30,0))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #294 A,T | GF- resi storage exports (Dmnl) "GF- resi storage exports"([(0,0)-(20,3)],(0,0),(1,0),(2,0.01),(3,0.0201),(3.97554,0.0346491),(5,0.0541),(7,0.277),(9,0.615),(20,2.6))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #295 A,T | GF- resi storage imports (Dmnl) "GF- resi storage imports"([(0,0)-(20,1)],(0,1),(1,0.8),(2,0.65),(3,0.49),(4,0.32),(5,0.19),(5.74924,0.127193),(7,0.07),(9,0.04),(20,0.02))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #296 A,T | GF- storage (Hours) "GF- storage"([(0,0)-(20,10)],(0,0),(1,0),(2,1),(3,2),(4,3),(5,3),(7,3),(9,2),(10,1.5),(20,1))
Present In 2 Views:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #297 A,T | GF-comm PV (Dmnl) "GF-comm PV"([(0,0.5)-(20,1)],(0,1),(1,0.741),(2,0.657),(3,0.598),(4,0.572),(5,0.556),(7,0.536),(9,0.525),(20,0.5))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #298 A,T | GF-network additions (Dmnl) "GF-network additions"([(0,0.9)-(2,2)],(0,1),(0.5,1),(1,2),(2,2))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #299 A,T | GF-resi PV (Dmnl) "GF-resi PV"([(0,0.4)-(10,1)],(0,1),(1,0.799),(1.34557,0.744737),(2,0.682),(3,0.629),(5,0.583),(7,0.56),(9,0.547),(10,0.545))
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #300 A,T | GF-solar PV penetration (Dmnl) "GF-solar PV penetration"([(0,0)-(30,1)],(0,1),(1.00917,0.644737),(2,0.39),(3,0.23),(4,0.13),(5,0.08),(6,0.062),(8,0.05),(30,0),(100,0))
Description: Modified on 24 Jan to reflect new payback analysis
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #371 A,T | LS solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'dc5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #452 A,T | Resi demand lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New load profiles Dec17' , 'q' , 'r5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #461 A,T | Resi solar lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'New solar resource Dec17' , 'a' , 'ao5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #510 A,T | time lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Times' , 'a' , 'b5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #561 A,T | Wave lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wave resource' , 'b' , 'd5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
SWIS2050(2R) | #580 A,T | Wind lookup (Dmnl) = GET XLS LOOKUPS('Excel inputs.xlsx', 'Wind resource' , 'a' , 'c5' )
Present In 1 View:Used ByFeedback Loops: 0 (0.0%) (+) 0 [0,0] (-) 0 [0,0] |
| Quick Links: | A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z |
| SWIS2050(2R) | C | 1 customer (customer) |
| SWIS2050(2R) | C | 1 hour (Hour) |
| SWIS2050(2R) | C | 1 system (system) |
| SWIS2050(2R) | C | 1 system/ customer (system/customer) |
| SWIS2050(2R) | C | 1 year (year) |
| SWIS2050(2R) | A | 2030 Biogas costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 LSS costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 Wave costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 Wind costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2050 Biogas costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Biogas costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 comm FIT fraction (Dmnl) |
| SWIS2050(2R) | A | 2050 energy intensity (GWh/(year*$m)) |
| SWIS2050(2R) | A | 2050 LSS costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 LSS costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 residential FIT fraction (Dmnl) |
| SWIS2050(2R) | A | 2050 unit cost of coal fuel ($/GJ) |
| SWIS2050(2R) | A | 2050 unit cost of gas fuel ($/GJ) |
| SWIS2050(2R) | C | 2050 unit cost of residential solar PV ($/kW) |
| SWIS2050(2R) | C | 2050 unit cost of residential storage ($/kWh) |
| SWIS2050(2R) | A | 2050 Wave costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Wave costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2050 Wind costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Wind costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | A | A-Ave/LSS (Dmnl) |
| SWIS2050(2R) | F,A | Additive annual emissions (tCO2e) |
| SWIS2050(2R) | A | Addtional comm storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Addtional resi storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Addtl Gas CT reqd (MW) |
| SWIS2050(2R) | A | Annual biogas costs ($) |
| SWIS2050(2R) | A | Annual biogas generation (MW*Hour) |
| SWIS2050(2R) | A | Annual coal costs ($) |
| SWIS2050(2R) | A | Annual coal emissions (tCO2e) |
| SWIS2050(2R) | A | Annual coal generation (MW*Hour) |
| SWIS2050(2R) | A | Annual comm customer growth fraction (1/year) |
| SWIS2050(2R) | A | Annual comm PV exports (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual comm PV generation (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual comm PV imports (kWh/customer/year) |
| SWIS2050(2R) | A | Annual comm PV savings ($/customer/year) |
| SWIS2050(2R) | A | Annual commercial customer demand (GWh/year) |
| SWIS2050(2R) | A | Annual commercial PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Annual demand balance (Hour*MW) |
| SWIS2050(2R) | A | Annual demand balance ratio (Dmnl) |
| SWIS2050(2R) | A | Annual demand met by network renewables (MW*Hour) |
| SWIS2050(2R) | A | Annual demand per comm customer (GWh/(year*customer)) |
| SWIS2050(2R) | C | Annual demand per large customer (GWh/customer/year) |
| SWIS2050(2R) | A | Annual emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CC costs ($) |
| SWIS2050(2R) | A | Annual gas CC emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CC generation (MW*Hour) |
| SWIS2050(2R) | A | Annual gas CT costs ($) |
| SWIS2050(2R) | A | Annual gas CT emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CT generation (MW*Hour) |
| SWIS2050(2R) | A | Annual generation curtailed (MW*Hour) |
| SWIS2050(2R) | A | Annual large customer demand (GWh/year) |
| SWIS2050(2R) | A | Annual large customer growth fraction (1/year) |
| SWIS2050(2R) | A | Annual LS solar costs ($) |
| SWIS2050(2R) | A | Annual LS solar generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network generation and storage costs ($) |
| SWIS2050(2R) | A | Annual network generation costs ($) |
| SWIS2050(2R) | A | Annual network generation plus storage discharges (Hour*MW) |
| SWIS2050(2R) | A | Annual network load (MW*Hour) |
| SWIS2050(2R) | A | Annual network renewables costs ($) |
| SWIS2050(2R) | A | Annual network renewables generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network storage costs ($) |
| SWIS2050(2R) | A | Annual network storage discharge (Hour*MW) |
| SWIS2050(2R) | A | Annual network storage losses (Hour*MW) |
| SWIS2050(2R) | A | Annual network thermal generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network thermal load (MW*Hour) |
| SWIS2050(2R) | A | Annual PHES costs ($/year) |
| SWIS2050(2R) | A | Annual private PV generation (Hour*MW) |
| SWIS2050(2R) | A | Annual resi PV exports (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual resi PV generation (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual resi PV imports (kWh/customer/year) |
| SWIS2050(2R) | A | Annual resi PV savings ($/customer/year) |
| SWIS2050(2R) | A | Annual residential customer demand (GWh/year) |
| SWIS2050(2R) | C | Annual residential demand growth fraction (1/year) |
| SWIS2050(2R) | C | Annual residential growth fraction (1/year) |
| SWIS2050(2R) | A | Annual residential PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Annual thermal network costs ($) |
| SWIS2050(2R) | A | Annual thermal network undergeneration (MW*Hour) |
| SWIS2050(2R) | A | Annual total demand met by customers (Hour*MW) |
| SWIS2050(2R) | A | Annual USBS costs ($/year) |
| SWIS2050(2R) | A | Annual wave costs ($) |
| SWIS2050(2R) | A | Annual wave generation (MW*Hour) |
| SWIS2050(2R) | A | Annual wind costs ($) |
| SWIS2050(2R) | A | Annual wind generation (MW*Hour) |
| SWIS2050(2R) | L | Ave annual residential demand per customer (kWh/customer/year) |
| SWIS2050(2R) | L | Ave comm PV array (kW/system) |
| SWIS2050(2R) | A | Ave hourly commercial demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | A | Ave hourly large customer demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | A | Ave hourly residential demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | L | Ave resi PV array (kW/system) |
| SWIS2050(2R) | A | Average 2050 renewables costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | B-Ave/Wind (Dmnl) |
| SWIS2050(2R) | C | Battery storage loss fraction (Dmnl) |
| SWIS2050(2R) | F,A | Biogas additions (MW/Hour) |
| SWIS2050(2R) | L | Biogas capacity (MW) |
| SWIS2050(2R) | C | Biogas capacity adj time (Years) |
| SWIS2050(2R) | C | Biogas capex ($/MW) |
| SWIS2050(2R) | C | Biogas CF (Dmnl) |
| SWIS2050(2R) | C | Biogas FOM ($/MW/year) |
| SWIS2050(2R) | A | Biogas generation (MW) |
| SWIS2050(2R) | A | Biogas hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Biogas hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Biogas hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Biogas life (Years) |
| SWIS2050(2R) | C | Biogas PMT (1/year) |
| SWIS2050(2R) | A | Biogas replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Biogas retirements (MW/Hour) |
| SWIS2050(2R) | C | Biogas share (Dmnl) |
| SWIS2050(2R) | A | Biogas share by cost (Dmnl) |
| SWIS2050(2R) | C | Biogas VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | C-Ave/Wave (Dmnl) |
| SWIS2050(2R) | C | Calendar year (year ) |
| SWIS2050(2R) | F,A | Chg in ave comm PV array (kW/system/Hour) |
| SWIS2050(2R) | F,A | Chg in ave resi PV array (kW/system/Hour) |
| SWIS2050(2R) | F,A | Chg in coal fuel cost ($/GJ/Hour) |
| SWIS2050(2R) | F,A | Chg in comm FIT fraction (1/Hour) |
| SWIS2050(2R) | F,A | Chg in comm storage systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in commercial customers (Customers/Hour) |
| SWIS2050(2R) | F,A | Chg in commercial PV systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in gas fuel cost ($/(Hour*GJ)) |
| SWIS2050(2R) | F,A | Chg in large customers (Customers/Hour) |
| SWIS2050(2R) | F,A | Chg in network storage capacity (MW) |
| SWIS2050(2R) | F,A | Chg in resi FIT fraction (1/Hour) |
| SWIS2050(2R) | F,A | Chg in resi solar PV systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in resi storage systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) |
| SWIS2050(2R) | F,A | Chg in unit cost of resi storage ($/kWh/Hour) |
| SWIS2050(2R) | F,A | Chg in wave capex ($/(MW*Hour)) |
| SWIS2050(2R) | F,A | Chg in wind capex ($/MW/Hour) |
| SWIS2050(2R) | F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) |
| SWIS2050(2R) | F,A | Chgs to energy intensity (GWh/$m/year/Hour) |
| SWIS2050(2R) | F,A | Chgs to GSP ($m/Hour) |
| SWIS2050(2R) | A | Coal % (Dmnl) |
| SWIS2050(2R) | F,A | Coal additions (MW/Hour) |
| SWIS2050(2R) | A | Coal available hours (Dmnl) |
| SWIS2050(2R) | L | Coal capacity (MW) |
| SWIS2050(2R) | C | Coal capex ($/MW) |
| SWIS2050(2R) | C | Coal cost multiplier (Dmnl) |
| SWIS2050(2R) | F,A | Coal emission out (tCO2e) |
| SWIS2050(2R) | F,A | Coal emissions in (tCO2e) |
| SWIS2050(2R) | C | Coal emissions per MWh (tCO2e/MW) |
| SWIS2050(2R) | C | Coal FOM ($/MW/year) |
| SWIS2050(2R) | C | Coal fuel cost adj time (Years) |
| SWIS2050(2R) | A | Coal fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | L | Coal fuel unit cost ($/GJ) |
| SWIS2050(2R) | A | Coal generation (MW) |
| SWIS2050(2R) | A | Coal hourly capex ($/(MW*Hour)) |
| SWIS2050(2R) | A | Coal hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Coal hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Coal operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Coal operating hours (Dmnl) |
| SWIS2050(2R) | C | Coal phase out period (Years) |
| SWIS2050(2R) | C | Coal PMT (1/year) |
| SWIS2050(2R) | F,A | Coal retirement (MW/Hour) |
| SWIS2050(2R) | A | Coal retirement period (year) |
| SWIS2050(2R) | C | Coal TE (Dmnl) |
| SWIS2050(2R) | C | Coal VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A,T | Comm demand lookup (Dmnl) |
| SWIS2050(2R) | C | Comm FIT adjustment time (Hours) |
| SWIS2050(2R) | A | Comm import fraction (Dmnl) |
| SWIS2050(2R) | A | Comm PV additions (Dmnl) |
| SWIS2050(2R) | C | Comm PV purchase adj time (year) |
| SWIS2050(2R) | A | Comm solar exports (kW) |
| SWIS2050(2R) | A | Comm solar imports (kW) |
| SWIS2050(2R) | A,T | Comm solar lookup (Dmnl) |
| SWIS2050(2R) | C | Comm solar switch (Dmnl) |
| SWIS2050(2R) | A | Comm storage capacity per system (Hour*kW) |
| SWIS2050(2R) | A | Comm storage capex ($/customer) |
| SWIS2050(2R) | F,A | Comm storage charge (kW) |
| SWIS2050(2R) | A | Comm storage demand (kW) |
| SWIS2050(2R) | F,A | Comm storage discharge (kW) |
| SWIS2050(2R) | A | Comm storage export fraction (Dmnl) |
| SWIS2050(2R) | A | Comm storage exports (kW) |
| SWIS2050(2R) | A | Comm storage import fraction (Dmnl) |
| SWIS2050(2R) | A | Comm storage imports (kW) |
| SWIS2050(2R) | F,A | Comm storage losses (kW) |
| SWIS2050(2R) | A | Comm storage penetration (Dmnl) |
| SWIS2050(2R) | L | Comm storage per system (kW*Hours) |
| SWIS2050(2R) | C | Comm storage switch (Dmnl) |
| SWIS2050(2R) | L | Commercial customers (Customers) |
| SWIS2050(2R) | A | Commercial demand met by solar PV (kW) |
| SWIS2050(2R) | A | Commercial FIT ($/kWh) |
| SWIS2050(2R) | L | Commercial FIT fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial hourly demand (kW) |
| SWIS2050(2R) | A | Commercial PV capacity (MW) |
| SWIS2050(2R) | A | Commercial PV payback (Years) |
| SWIS2050(2R) | A | Commercial PV penetration (Dmnl) |
| SWIS2050(2R) | L | Commercial PV systems (Systems) |
| SWIS2050(2R) | A | Commercial SCM (Dmnl) |
| SWIS2050(2R) | A | Commercial solar generation (kW) |
| SWIS2050(2R) | C | Commercial solar PV fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial storage capacity (Hour*MW) |
| SWIS2050(2R) | C | Commercial storage fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial storage payback (Years) |
| SWIS2050(2R) | A | Commercial storage penetration (Dmnl) |
| SWIS2050(2R) | A | Commercial storage savings ($/(customer*year)) |
| SWIS2050(2R) | L | Commercial storage systems (Systems) |
| SWIS2050(2R) | A | Commercial tariff ($/kWh) |
| SWIS2050(2R) | A | CommPV capex ($/system) |
| SWIS2050(2R) | C | Correction factor (Dmnl) |
| SWIS2050(2R) | L | Cum coal generation (MW*Hour) |
| SWIS2050(2R) | L | Cum CT generation (MW* Hour) |
| SWIS2050(2R) | L | Cum gas CC generation (MW* Hour) |
| SWIS2050(2R) | L | Cum thermal network undergeneration (MW*Hour) |
| SWIS2050(2R) | L | Cumulative biogas generation (MW*Hour) |
| SWIS2050(2R) | L | Cumulative coal emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative coal operating hours (Hour) |
| SWIS2050(2R) | L | Cumulative demand met by customers (MW*Hour) |
| SWIS2050(2R) | L | Cumulative demand met by network renewables (MW*Hour) |
| SWIS2050(2R) | L | Cumulative emissions (tCO2e*Hour) |
| SWIS2050(2R) | L | Cumulative gas CC emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative gas CC operating hours (Hour) |
| SWIS2050(2R) | L | Cumulative gas CT emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative gas CT operating hours (Hours) |
| SWIS2050(2R) | L | Cumulative generation curtailed (MW*Hour) |
| SWIS2050(2R) | L | Cumulative LS solar generation (MW* Hour) |
| SWIS2050(2R) | L | Cumulative network load (MW*Hour) |
| SWIS2050(2R) | L | Cumulative network storage discharge (Hour*MW) |
| SWIS2050(2R) | L | Cumulative network storage losses (MW*Hour) |
| SWIS2050(2R) | L | Cumulative network thermal load (MW*Hours) |
| SWIS2050(2R) | L | Cumulative wave generation (MW* Hour) |
| SWIS2050(2R) | L | Cumulative wind generation (MW* Hour) |
| SWIS2050(2R) | A | D-Ave/Bio (Dmnl) |
| SWIS2050(2R) | A | Demand met by network renewables (MW) |
| SWIS2050(2R) | C,F | Diesel additions (MW/Hour) |
| SWIS2050(2R) | L | Diesel capacity (MW) |
| SWIS2050(2R) | C,F | Diesel retirements (MW/Hour) |
| SWIS2050(2R) | F,A | DNR in (MW) |
| SWIS2050(2R) | F,A | DNR out (MW) |
| SWIS2050(2R) | C | EI adjustment period (Years) |
| SWIS2050(2R) | L | Energy intensity (GWh/$m/year) |
| SWIS2050(2R) | C | Energy intensity multiplier (Dmnl) |
| SWIS2050(2R) | A | Excess comm generation (kW) |
| SWIS2050(2R) | A | Excess resi generation (kW) |
| .Control | C | FINAL TIME (Hour) |
| SWIS2050(2R) | F,A | Gas CC additions (MW/Hour) |
| SWIS2050(2R) | A | Gas CC available hours (Dmnl) |
| SWIS2050(2R) | L | Gas CC capacity (MW) |
| SWIS2050(2R) | C | Gas CC capex ($/MW) |
| SWIS2050(2R) | F,A | Gas CC emissions in (tCO2e) |
| SWIS2050(2R) | F,A | Gas CC emissions out (tCO2e) |
| SWIS2050(2R) | C | Gas CC emissions per MWh (tCO2e/(MW)) |
| SWIS2050(2R) | C | Gas CC FOM ($/MW/year) |
| SWIS2050(2R) | A | Gas CC fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC generation (MW) |
| SWIS2050(2R) | A | Gas CC hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Gas CC hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Gas CC operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Gas CC operating hours (Dmnl) |
| SWIS2050(2R) | C | Gas CC phase out period (Years) |
| SWIS2050(2R) | C | Gas CC PMT (1/year) |
| SWIS2050(2R) | F,A | Gas CC retirement (MW/Hour) |
| SWIS2050(2R) | A | Gas CC retirement period (year) |
| SWIS2050(2R) | C | Gas CC TE (Dmnl) |
| SWIS2050(2R) | C | Gas CC VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC% (Dmnl) |
| SWIS2050(2R) | C | Gas cost multiplier (Dmnl) |
| SWIS2050(2R) | A | Gas CT % (Dmnl) |
| SWIS2050(2R) | F,A | Gas CT additions (MW/Hour) |
| SWIS2050(2R) | L | Gas CT capacity (MW) |
| SWIS2050(2R) | C | Gas CT capex ($/MW) |
| SWIS2050(2R) | C | Gas CT emission per MWh (tCO2e/MW) |
| SWIS2050(2R) | F,A | Gas CT emissions in (tCO2e) |
| SWIS2050(2R) | F,A | Gas CT emissions out (tCO2e) |
| SWIS2050(2R) | C | Gas CT FOM ($/MW/year) |
| SWIS2050(2R) | A | Gas CT fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CT generation (MW) |
| SWIS2050(2R) | A | Gas CT hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Gas CT hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CT hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Gas CT operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Gas CT operating hours (Dmnl) |
| SWIS2050(2R) | C | Gas CT phase out period (Years) |
| SWIS2050(2R) | C | Gas CT PMT (1/year) |
| SWIS2050(2R) | A | Gas CT retirement period (year) |
| SWIS2050(2R) | F,A | Gas CT retirements (MW/Hour) |
| SWIS2050(2R) | C | Gas CT TE (Dmnl) |
| SWIS2050(2R) | C | Gas CT VOM ($/(MW*Hour)) |
| SWIS2050(2R) | C | Gas fuel cost adj time (Years) |
| SWIS2050(2R) | L | Gas fuel unit cost ($/GJ) |
| SWIS2050(2R) | F,A | Gen curtailed in (MW) |
| SWIS2050(2R) | F,A | Gen curtailed out (MW) |
| SWIS2050(2R) | A | Generation curtailed (MW) |
| SWIS2050(2R) | C | Generation fraction of tariff (Dmnl) |
| SWIS2050(2R) | A,T | GF- comm array (kW/system) |
| SWIS2050(2R) | A,T | GF- comm storage exports (Dmnl) |
| SWIS2050(2R) | A,T | GF- comm storage imports (Dmnl) |
| SWIS2050(2R) | A,T | GF- resi array (kW/system) |
| SWIS2050(2R) | A,T | GF- resi storage exports (Dmnl) |
| SWIS2050(2R) | A,T | GF- resi storage imports (Dmnl) |
| SWIS2050(2R) | A,T | GF- storage (Hours) |
| SWIS2050(2R) | A,T | GF-comm PV (Dmnl) |
| SWIS2050(2R) | A,T | GF-network additions (Dmnl) |
| SWIS2050(2R) | A,T | GF-resi PV (Dmnl) |
| SWIS2050(2R) | A,T | GF-solar PV penetration (Dmnl) |
| SWIS2050(2R) | C | GJ/MWh (GJ/(MW*Hour)) |
| SWIS2050(2R) | L | GSP ($m) |
| SWIS2050(2R) | C | GSP annual growth fraction (1/year) |
| SWIS2050(2R) | C | GW/kW (GWh/kWh) |
| SWIS2050(2R) | A | Hour of the day (Hour) |
| SWIS2050(2R) | A | Hour of the year (Hour) |
| SWIS2050(2R) | F,A | Hourly BG in (MW) |
| SWIS2050(2R) | F,A | Hourly BG out (MW) |
| SWIS2050(2R) | F,A | Hourly CG in (MW) |
| SWIS2050(2R) | F,A | Hourly CG out (MW) |
| SWIS2050(2R) | A | Hourly coal emissions (tCO2e) |
| SWIS2050(2R) | A | Hourly demand balance (MW) |
| SWIS2050(2R) | F,A | Hourly demand met in (MW) |
| SWIS2050(2R) | F,A | Hourly demand met out (MW) |
| SWIS2050(2R) | A | Hourly gas CC emissions (tCO2e) |
| SWIS2050(2R) | A | Hourly gas CT emissions (tCO2e) |
| SWIS2050(2R) | F,A | Hourly GCC in (MW) |
| SWIS2050(2R) | F,A | Hourly GCC out (MW) |
| SWIS2050(2R) | F,A | Hourly GCT in (MW) |
| SWIS2050(2R) | F,A | Hourly GCT out (MW) |
| SWIS2050(2R) | F,A | Hourly LSS in (MW) |
| SWIS2050(2R) | F,A | Hourly LSS out (MW) |
| SWIS2050(2R) | A | Hourly network generation plus storage discharges (MW) |
| SWIS2050(2R) | F,A | Hourly NL in (MW) |
| SWIS2050(2R) | F,A | Hourly NL out (MW) |
| SWIS2050(2R) | F,A | Hourly NS losses in (MW) |
| SWIS2050(2R) | F,A | Hourly NS losses out (MW) |
| SWIS2050(2R) | F,A | Hourly NTL in (MW) |
| SWIS2050(2R) | F,A | Hourly NTL out (MW) |
| SWIS2050(2R) | F,A | Hourly TNU in (MW) |
| SWIS2050(2R) | F,A | Hourly TNU out (MW) |
| SWIS2050(2R) | F,A | Hourly WaveG in (MW) |
| SWIS2050(2R) | F,A | Hourly WaveG out (MW) |
| SWIS2050(2R) | F,A | Hourly WG in (MW) |
| SWIS2050(2R) | F,A | Hourly WG out (MW) |
| SWIS2050(2R) | C | Hours per year (Hours/year) |
| SWIS2050(2R) | A | Indicated comm PV array (kW/system) |
| SWIS2050(2R) | A | Indicated resi PV array (kW/system) |
| SWIS2050(2R) | A | Industry energy demand (GWh/year) |
| SWIS2050(2R) | A | Initial annual network thermal load (MW*Hour) |
| SWIS2050(2R) | LI,C | Initial coal capacity (MW) |
| SWIS2050(2R) | LI,C | Initial coal fuel cost ($/GJ) |
| SWIS2050(2R) | LI,A | Initial comm FIT fraction (Dmnl) |
| SWIS2050(2R) | C | Initial commercial FIT ($/kWh) |
| SWIS2050(2R) | C | Initial commercial tariff ($/kWh) |
| SWIS2050(2R) | LI,C | Initial energy intensity (GWh/$m/year) |
| SWIS2050(2R) | LI,C | Initial gas CC capacity (MW) |
| SWIS2050(2R) | LI,C | Initial gas CT capacity (MW) |
| SWIS2050(2R) | LI,C | Initial gas fuel cost ($/GJ) |
| SWIS2050(2R) | C | Initial large customer tariff ($/kWh) |
| SWIS2050(2R) | C | Initial network unit cost ($/(MW*Hour)) |
| SWIS2050(2R) | C | Initial residential FIT ($/kWh) |
| SWIS2050(2R) | LI,A | Initial residential FIT fraction (Dmnl) |
| SWIS2050(2R) | C | Initial residential tariff ($/kWh) |
| SWIS2050(2R) | A | Initial thermal plant (MW) |
| .Control | C | INITIAL TIME (Hour) |
| SWIS2050(2R) | C | kW/MW (kW/MW) |
| SWIS2050(2R) | C | kWh (kWh/(kW*Hour)) |
| SWIS2050(2R) | C | kWh/MWh (kWh/(MW*Hour)) |
| SWIS2050(2R) | A | Large customer hourly demand (kW/customer) |
| SWIS2050(2R) | A | Large customer tariff ($/kWh) |
| SWIS2050(2R) | L | Large customers (Customers) |
| SWIS2050(2R) | F,A | LS solar additions (MW/Hour) |
| SWIS2050(2R) | A | LS solar capex ($/MW) |
| SWIS2050(2R) | C | LS solar CF (Dmnl) |
| SWIS2050(2R) | C | LS solar FOM ($/MW/year) |
| SWIS2050(2R) | A | LS solar hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | LS solar hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | LS solar hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | LS solar life (Years) |
| SWIS2050(2R) | A,T | LS solar lookup (Dmnl) |
| SWIS2050(2R) | C | LS solar PMT (1/year) |
| SWIS2050(2R) | L | LS Solar PV capacity (MW) |
| SWIS2050(2R) | A | LS solar PV generation (MW) |
| SWIS2050(2R) | F,A | LS solar retirements (MW/Hour) |
| SWIS2050(2R) | C | LS solar VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | LSS replacements (MW/Hour) |
| SWIS2050(2R) | C | LSS share (Dmnl) |
| SWIS2050(2R) | A | LSS share by cost (Dmnl) |
| SWIS2050(2R) | A | Max coal generation capacity (MW) |
| SWIS2050(2R) | A | Max comm PV systems (Systems) |
| SWIS2050(2R) | A | Max gas CC generation capacity (MW) |
| SWIS2050(2R) | A | Max resi PV systems (Systems) |
| SWIS2050(2R) | C | Maximum comm PV generation (Dmnl) |
| SWIS2050(2R) | A | Maximum network storage (Hour*MW) |
| SWIS2050(2R) | C | Maximum resi PV penetration (Dmnl) |
| SWIS2050(2R) | A | Min coal generation capacity (MW) |
| SWIS2050(2R) | A | Min gas CC generation capacity (MW) |
| SWIS2050(2R) | C | Minimum private storage discharge (Dmnl) |
| SWIS2050(2R) | A | Month of the year (Dmnl) |
| SWIS2050(2R) | C | MW/GW (MW*Hour/GWh) |
| SWIS2050(2R) | A | Negative network load (MW) |
| SWIS2050(2R) | A | Net annual network demand (Hour*MW) |
| SWIS2050(2R) | A | Net comm PV production (kW) |
| SWIS2050(2R) | A | Net hourly network demand (MW) |
| SWIS2050(2R) | A | Net private storage hours (Hour) |
| SWIS2050(2R) | A | Net resi PV production (kW) |
| SWIS2050(2R) | F,A | Net residential customer growth (Customers/Hour) |
| SWIS2050(2R) | A | Network battery storage capacity (MW*Hour) |
| SWIS2050(2R) | C | Network generation storage ratio (Dmnl) |
| SWIS2050(2R) | A | Network generation tariff multiplier (Dmnl) |
| SWIS2050(2R) | A | Network load from comm solar premises (kW) |
| SWIS2050(2R) | A | Network load from comm storage premises (kW) |
| SWIS2050(2R) | A | Network load from resi solar only home (kW) |
| SWIS2050(2R) | A | Network load from resi storage home (kW) |
| SWIS2050(2R) | A | Network renewables generation (MW) |
| SWIS2050(2R) | L | Network storage capacity (MW*Hour) |
| SWIS2050(2R) | F,A | Network storage charge (MW) |
| SWIS2050(2R) | F,A | Network storage discharge (MW) |
| SWIS2050(2R) | C | Network storage loss fraction (Dmnl) |
| SWIS2050(2R) | F,A | Network storage losses (MW) |
| SWIS2050(2R) | C | Network storage minimum discharge level (Dmnl) |
| SWIS2050(2R) | L | Network storage SoC (MW*Hour) |
| SWIS2050(2R) | C | Network storage switch (Dmnl) |
| SWIS2050(2R) | A | Network thermal load (MW) |
| SWIS2050(2R) | A | Network unit cost ($/(MW*Hour)) |
| SWIS2050(2R) | A | Nominal annual thermal generation capacity (MW*Hour/year) |
| SWIS2050(2R) | A | Nominal coal annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Coal CF (Dmnl) |
| SWIS2050(2R) | C | Nominal coal life (Years) |
| SWIS2050(2R) | A | Nominal gas CC annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Gas CC CF (Dmnl) |
| SWIS2050(2R) | C | Nominal gas CC life (Years) |
| SWIS2050(2R) | A | Nominal gas CT annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Gas CT CF (Dmnl) |
| SWIS2050(2R) | C | Nominal gas CT life (Years) |
| SWIS2050(2R) | A | Non-solar comm premises (Dmnl) |
| SWIS2050(2R) | A | Non-solar homes (Dmnl) |
| SWIS2050(2R) | A | Normal annual comm electricity charges ($/(year*customer)) |
| SWIS2050(2R) | A | Normal annual large cust electricity charges ($/(year*customer)) |
| SWIS2050(2R) | A | Normal annual resi electricity charges ($/(year*customer)) |
| SWIS2050(2R) | F,A | NS discharge in (MW) |
| SWIS2050(2R) | F,A | NS discharge out (MW) |
| SWIS2050(2R) | C | Onshore wind capex 2050 ($/MW) |
| SWIS2050(2R) | A | Optimum comm storage hours (Hours) |
| SWIS2050(2R) | A | Optimum resi storage hours (Hours) |
| SWIS2050(2R) | C | PHES - battery split (Dmnl) |
| SWIS2050(2R) | A | PHES capacity (MW*Hour) |
| SWIS2050(2R) | C | PHES capex per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | PHES FOM ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | A | PHES hourly capex ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | PHES life (year) |
| SWIS2050(2R) | C | PHES opex % (1/year) |
| SWIS2050(2R) | C | PHES PMT (1/year) |
| SWIS2050(2R) | A | Positive network load (MW) |
| SWIS2050(2R) | C | Private PV capacity factor (Dmnl) |
| SWIS2050(2R) | A | Renewables adjustments (Dmnl) |
| SWIS2050(2R) | A | Renewables total share (1) |
| SWIS2050(2R) | A | Required thermal network additions (Dmnl) |
| SWIS2050(2R) | A,T | Resi demand lookup (Dmnl) |
| SWIS2050(2R) | C | Resi FIT adjustment time (Hours) |
| SWIS2050(2R) | A | Resi PV additions (Dmnl) |
| SWIS2050(2R) | A | Resi PV capex ($/system) |
| SWIS2050(2R) | A | Resi PV import fraction (Dmnl) |
| SWIS2050(2R) | C | Resi PV purchase adj time (year) |
| SWIS2050(2R) | C | Resi solar adjustment time (Hours) |
| SWIS2050(2R) | A | Resi solar exports (kW) |
| SWIS2050(2R) | A | Resi solar imports (kW) |
| SWIS2050(2R) | A,T | Resi solar lookup (Dmnl) |
| SWIS2050(2R) | C | Resi solar switch (Dmnl) |
| SWIS2050(2R) | A | Resi storage capacity per system (kW*Hour) |
| SWIS2050(2R) | A | Resi storage capex ($/customer) |
| SWIS2050(2R) | F,A | Resi storage charge (kW) |
| SWIS2050(2R) | A | Resi storage demand (kW) |
| SWIS2050(2R) | F,A | Resi storage discharge (kW) |
| SWIS2050(2R) | A | Resi storage export fraction (Dmnl) |
| SWIS2050(2R) | A | Resi storage exports (kW) |
| SWIS2050(2R) | A | Resi storage import fraction (Dmnl) |
| SWIS2050(2R) | A | Resi storage imports (kW) |
| SWIS2050(2R) | F,A | Resi storage losses (kW) |
| SWIS2050(2R) | A | Resi storage penetration (Dmnl) |
| SWIS2050(2R) | L | Resi storage per system (kW*Hour) |
| SWIS2050(2R) | C | Resi storage switch (Dmnl) |
| SWIS2050(2R) | L | Residential customers (Customers) |
| SWIS2050(2R) | A | Residential demand met by solar PV (kW) |
| SWIS2050(2R) | A | Residential FIT ($/kWh) |
| SWIS2050(2R) | L | Residential FIT fraction (Dmnl) |
| SWIS2050(2R) | A | Residential hourly demand (kW) |
| SWIS2050(2R) | A | Residential PV capacity (MW) |
| SWIS2050(2R) | A | Residential PV payback (Years) |
| SWIS2050(2R) | A | Residential PV penetration (Dmnl) |
| SWIS2050(2R) | L | Residential PV systems (Systems) |
| SWIS2050(2R) | A | Residential SCM (Dmnl) |
| SWIS2050(2R) | A | Residential solar generation (kW) |
| SWIS2050(2R) | A | Residential storage capacity (Hour*MW) |
| SWIS2050(2R) | A | Residential storage payback (Years) |
| SWIS2050(2R) | A | Residential storage penetration (Dmnl) |
| SWIS2050(2R) | A | Residential storage savings ($/(customer*year)) |
| SWIS2050(2R) | L | Residential storage systems (Systems) |
| SWIS2050(2R) | A | Residential tariff ($/kWh) |
| SWIS2050(2R) | A | Retired coal generation (MW/Hour) |
| SWIS2050(2R) | A | Retired gas CC generation (MW/Hour) |
| SWIS2050(2R) | A | Retired gas CT generation (MW/Hour) |
| .Control | A | SAVEPER (Hour ) |
| SWIS2050(2R) | C | Solar capacity adj time (year) |
| SWIS2050(2R) | A | Solar only comm premises (Dmnl) |
| SWIS2050(2R) | A | Solar only homes (Dmnl) |
| SWIS2050(2R) | C | start year (year) |
| SWIS2050(2R) | A | Sum of A-D (Dmnl) |
| SWIS2050(2R) | F,A | Swap (MW) |
| SWIS2050(2R) | C | System/customer (system/customer) |
| SWIS2050(2R) | C | Tariff multiplier switch (Dmnl) |
| SWIS2050(2R) | C | Thermal network additions switch (Dmnl) |
| SWIS2050(2R) | A | Thermal network annual load / capacity (Dmnl) |
| SWIS2050(2R) | A | Thermal network undergeneration (MW) |
| SWIS2050(2R) | C | Thermal plant construction time (Years) |
| SWIS2050(2R) | A,T | time lookup (Dmnl) |
| .Control | C | TIME STEP (Hour ) |
| SWIS2050(2R) | A | Total annual demand (GWh/year) |
| SWIS2050(2R) | A | Total annual demand in MWh (MW*Hour) |
| SWIS2050(2R) | A | Total annual system generation (MW*Hour) |
| SWIS2050(2R) | A | Total commercial network load (MW) |
| SWIS2050(2R) | A | Total hourly demand (MW) |
| SWIS2050(2R) | A | Total hourly demand - comm customers (kW) |
| SWIS2050(2R) | A | Total hourly demand - large customers (kW) |
| SWIS2050(2R) | A | Total hourly demand - resi customers (kW) |
| SWIS2050(2R) | A | Total hourly demand met by customers (MW) |
| SWIS2050(2R) | A | Total network load (MW) |
| SWIS2050(2R) | A | Total network load from comm solar premises (kW) |
| SWIS2050(2R) | A | Total network load from comm storage premises (kW) |
| SWIS2050(2R) | A | Total network load from non-solar comm premises (kW) |
| SWIS2050(2R) | A | Total network load from non-solar homes (kW) |
| SWIS2050(2R) | A | Total network load from solar only homes (kW) |
| SWIS2050(2R) | A | Total network load from storage home (kW) |
| SWIS2050(2R) | A | Total network thermal generation (MW) |
| SWIS2050(2R) | A | Total private PV capacity (MW) |
| SWIS2050(2R) | A | Total private PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Total private storage capacity (Hour*MW) |
| SWIS2050(2R) | A | Total residential network load (MW) |
| SWIS2050(2R) | A | Total retired thermal generation (MW/Hour) |
| SWIS2050(2R) | A | Unit cost of comm battery storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of commercial solar PV ($/kW) |
| SWIS2050(2R) | L | Unit cost of residential solar PV ($/kW) |
| SWIS2050(2R) | L | Unit cost of residential storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of utility scale battery storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of utility scale solar PV ($/kW) |
| SWIS2050(2R) | A | USBS FOM ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | USBS opex ($/(MW*Hour)/year) |
| SWIS2050(2R) | C | Utility battery storage fraction (Dmnl) |
| SWIS2050(2R) | A | Utility scale battery storage capex per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | Utility scale battery storage PMT (1/year) |
| SWIS2050(2R) | A | Utility scale hourly capex ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | Utility solar PV fraction (Dmnl) |
| SWIS2050(2R) | F,A | Wave additions (MW/Hour) |
| SWIS2050(2R) | L | Wave capacity (MW) |
| SWIS2050(2R) | C | Wave capacity adj time (Years) |
| SWIS2050(2R) | L | Wave capex ($/MW) |
| SWIS2050(2R) | C | Wave capex 2050 ($/MW) |
| SWIS2050(2R) | C | Wave capex adj time (Years) |
| SWIS2050(2R) | C | Wave CF (Dmnl) |
| SWIS2050(2R) | C | Wave FOM ($/MW/year) |
| SWIS2050(2R) | A | Wave generation (MW) |
| SWIS2050(2R) | A | Wave hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Wave hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Wave hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Wave life (Years) |
| SWIS2050(2R) | A,T | Wave lookup (Dmnl) |
| SWIS2050(2R) | C | Wave PMT (1/year) |
| SWIS2050(2R) | A | Wave replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Wave retirements (MW/Hour) |
| SWIS2050(2R) | C | Wave share (Dmnl) |
| SWIS2050(2R) | A | Wave share by cost (Dmnl) |
| SWIS2050(2R) | C | Wave VOM ($/(MW*Hour)) |
| SWIS2050(2R) | F,A | Wind additions (MW/Hour) |
| SWIS2050(2R) | L | Wind capacity (MW) |
| SWIS2050(2R) | C | Wind capacity adj time (Years) |
| SWIS2050(2R) | L | Wind capex ($/MW) |
| SWIS2050(2R) | C | Wind capex adj time (Years) |
| SWIS2050(2R) | C | Wind CF (Dmnl) |
| SWIS2050(2R) | C | Wind FOM ($/(MW*year)) |
| SWIS2050(2R) | A | Wind generation (MW) |
| SWIS2050(2R) | A | Wind hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Wind hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Wind hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Wind life (Years) |
| SWIS2050(2R) | A,T | Wind lookup (Dmnl) |
| SWIS2050(2R) | C | Wind PMT (1/year) |
| SWIS2050(2R) | A | Wind replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Wind retirements (MW/Hour) |
| SWIS2050(2R) | C | Wind share (Dmnl) |
| SWIS2050(2R) | A | Wind share by cost (Dmnl) |
| SWIS2050(2R) | C | Wind VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | Year 0 (Dmnl) |
| SWIS2050(2R) | A | Year label (year ) |
| SWIS2050(2R) | C | years per hour (Years/Hour) |
| SWIS2050(2R) | C | Hours per year (Hours/year) | 0 | 58 | 0.00 | 0| 0| 0 | 16|41| 1 |
| SWIS2050(2R) | A | Hour of the year (Hour) | 1 | 49 | 0.02 | 0| 0| 1 | 0| 0|49 |
| SWIS2050(2R) | C | 1 hour (Hour) | 0 | 39 | 0.00 | 0| 0| 0 | 1|22|16 |
| SWIS2050(2R) | C | 1 system (system) | 0 | 12 | 0.00 | 0| 0| 0 | 6| 4| 2 |
| SWIS2050(2R) | A | Gas CC generation (MW) | 5 | 6 | 0.83 | 2| 1| 2 | 5| 1| 0 |
| SWIS2050(2R) | A | Coal generation (MW) | 4 | 7 | 0.57 | 3| 0| 1 | 5| 2| 0 |
| SWIS2050(2R) | A | Residential SCM (Dmnl) | 4 | 6 | 0.67 | 3| 1| 0 | 3| 2| 1 |
| SWIS2050(2R) | A | Residential hourly demand (kW) | 6 | 4 | 1.50 | 0| 0| 6 | 3| 1| 0 |
| SWIS2050(2R) | A | Network thermal load (MW) | 2 | 8 | 0.25 | 1| 1| 0 | 8| 0| 0 |
| SWIS2050(2R) | L | Gas CC capacity (MW) | 3 | 7 | 0.43 | 2| 1| 0 | 4| 2| 1 |
| SWIS2050(2R) | A | Commercial SCM (Dmnl) | 4 | 6 | 0.67 | 3| 1| 0 | 3| 2| 1 |
| SWIS2050(2R) | A | Commercial hourly demand (kW) | 6 | 4 | 1.50 | 0| 0| 6 | 3| 1| 0 |
| SWIS2050(2R) | L | Coal capacity (MW) | 3 | 7 | 0.43 | 2| 1| 0 | 4| 2| 1 |
| SWIS2050(2R) | C | 1 year (year) | 0 | 10 | 0.00 | 0| 0| 0 | 7| 1| 2 |
| SWIS2050(2R) | C | 1 system/ customer (system/customer) | 0 | 10 | 0.00 | 0| 0| 0 | 6| 4| 0 |
| SWIS2050(2R) | A | Wind hourly costs per MWh ($/(MW*Hour)) | 5 | 4 | 1.25 | 3| 2| 0 | 2| 0| 2 |
| SWIS2050(2R) | A | Wave hourly costs per MWh ($/(MW*Hour)) | 5 | 4 | 1.25 | 3| 2| 0 | 2| 0| 2 |
| SWIS2050(2R) | A | Total network load (MW) | 4 | 5 | 0.80 | 3| 1| 0 | 4| 1| 0 |
| SWIS2050(2R) | F,A | Network storage discharge (MW) | 5 | 4 | 1.25 | 1| 0| 4 | 2| 2| 0 |
| SWIS2050(2R) | A | LS solar hourly costs per MWh ($/(MW*Hour)) | 5 | 4 | 1.25 | 3| 2| 0 | 2| 0| 2 |
| SWIS2050(2R) | C | kW/MW (kW/MW) | 0 | 9 | 0.00 | 0| 0| 0 | 1| 8| 0 |
| SWIS2050(2R) | A | Gas CT generation (MW) | 4 | 5 | 0.80 | 2| 2| 0 | 5| 0| 0 |
| SWIS2050(2R) | L | Gas CT capacity (MW) | 3 | 6 | 0.50 | 2| 1| 0 | 3| 2| 1 |
| SWIS2050(2R) | A | Biogas hourly costs per MWh ($/(MW*Hour)) | 5 | 4 | 1.25 | 3| 2| 0 | 2| 0| 2 |
| SWIS2050(2R) | A | Total retired thermal generation (MW/Hour) | 4 | 4 | 1.00 | 3| 0| 1 | 4| 0| 0 |
| SWIS2050(2R) | A | Sum of A-D (Dmnl) | 4 | 4 | 1.00 | 4| 0| 0 | 0| 4| 0 |
| SWIS2050(2R) | A | Residential solar generation (kW) | 6 | 2 | 3.00 | 0| 0| 6 | 2| 0| 0 |
| SWIS2050(2R) | L | Residential customers (Customers) | 1 | 7 | 0.14 | 1| 0| 0 | 5| 2| 0 |
| SWIS2050(2R) | F,A | Network storage charge (MW) | 5 | 3 | 1.67 | 0| 2| 3 | 2| 1| 0 |
| SWIS2050(2R) | C | GW/kW (GWh/kWh) | 0 | 8 | 0.00 | 0| 0| 0 | 2| 6| 0 |
| SWIS2050(2R) | A | Gas CT hourly costs per MWh ($/(MW*Hour)) | 6 | 2 | 3.00 | 4| 2| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Gas CC hourly costs per MWh ($/(MW*Hour)) | 6 | 2 | 3.00 | 4| 2| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Commercial solar generation (kW) | 6 | 2 | 3.00 | 0| 0| 6 | 2| 0| 0 |
| SWIS2050(2R) | L | Commercial customers (Customers) | 1 | 7 | 0.14 | 1| 0| 0 | 4| 3| 0 |
| SWIS2050(2R) | A | Coal hourly costs per MWh ($/(MW*Hour)) | 6 | 2 | 3.00 | 4| 2| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | Calendar year (year ) | 0 | 8 | 0.00 | 0| 0| 0 | 0| 0| 8 |
| SWIS2050(2R) | A | Average 2050 renewables costs per MWh ($/(MW*Hour)) | 4 | 4 | 1.00 | 4| 0| 0 | 4| 0| 0 |
| SWIS2050(2R) | A | Ave hourly commercial demand (kWh/(Hour*customer)) | 3 | 5 | 0.60 | 1| 2| 0 | 3| 1| 1 |
| SWIS2050(2R) | L | Ave annual residential demand per customer (kWh/customer/year) | 1 | 7 | 0.14 | 1| 0| 0 | 6| 1| 0 |
| SWIS2050(2R) | A | Annual comm PV savings ($/customer/year) | 6 | 2 | 3.00 | 4| 2| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Wind generation (MW) | 5 | 2 | 2.50 | 0| 0| 5 | 2| 0| 0 |
| SWIS2050(2R) | A | Wave generation (MW) | 5 | 2 | 2.50 | 0| 0| 5 | 2| 0| 0 |
| SWIS2050(2R) | A | Total annual demand in MWh (MW*Hour) | 6 | 1 | 6.00 | 0| 0| 6 | 1| 0| 0 |
| SWIS2050(2R) | L | Residential PV systems (Systems) | 1 | 6 | 0.17 | 1| 0| 0 | 4| 2| 0 |
| SWIS2050(2R) | F,A | Resi storage discharge (kW) | 5 | 2 | 2.50 | 1| 0| 4 | 0| 2| 0 |
| SWIS2050(2R) | F,A | Resi storage charge (kW) | 4 | 3 | 1.33 | 2| 2| 0 | 2| 1| 0 |
| SWIS2050(2R) | L | Network storage capacity (MW*Hour) | 2 | 5 | 0.40 | 1| 1| 0 | 3| 0| 2 |
| SWIS2050(2R) | A | Network renewables generation (MW) | 4 | 3 | 1.33 | 4| 0| 0 | 1| 2| 0 |
| SWIS2050(2R) | A | Network generation tariff multiplier (Dmnl) | 4 | 3 | 1.33 | 2| 1| 1 | 3| 0| 0 |
| SWIS2050(2R) | A | LS solar PV generation (MW) | 5 | 2 | 2.50 | 0| 0| 5 | 2| 0| 0 |
| SWIS2050(2R) | F,A | Gas CT additions (MW/Hour) | 6 | 1 | 6.00 | 4| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Commercial storage savings ($/(customer*year)) | 6 | 1 | 6.00 | 4| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Commercial PV systems (Systems) | 1 | 6 | 0.17 | 1| 0| 0 | 4| 2| 0 |
| SWIS2050(2R) | F,A | Comm storage discharge (kW) | 5 | 2 | 2.50 | 1| 0| 4 | 0| 2| 0 |
| SWIS2050(2R) | F,A | Comm storage charge (kW) | 4 | 3 | 1.33 | 3| 1| 0 | 2| 1| 0 |
| SWIS2050(2R) | F,A | Chg in resi storage systems (Systems/Hour) | 6 | 1 | 6.00 | 2| 4| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in resi solar PV systems (Systems/Hour) | 6 | 1 | 6.00 | 3| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in commercial PV systems (Systems/Hour) | 6 | 1 | 6.00 | 3| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in comm storage systems (Systems/Hour) | 6 | 1 | 6.00 | 3| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Ave resi PV array (kW/system) | 1 | 6 | 0.17 | 1| 0| 0 | 4| 1| 1 |
| SWIS2050(2R) | A | Ave hourly residential demand (kWh/(Hour*customer)) | 2 | 5 | 0.40 | 1| 1| 0 | 3| 1| 1 |
| SWIS2050(2R) | L | Ave comm PV array (kW/system) | 1 | 6 | 0.17 | 1| 0| 0 | 4| 1| 1 |
| SWIS2050(2R) | A | Annual resi PV savings ($/customer/year) | 5 | 2 | 2.50 | 4| 1| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Annual demand per comm customer (GWh/(year*customer)) | 2 | 5 | 0.40 | 1| 1| 0 | 4| 1| 0 |
| SWIS2050(2R) | A | Total hourly demand (MW) | 4 | 2 | 2.00 | 3| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | Thermal network additions switch (Dmnl) | 0 | 6 | 0.00 | 0| 0| 0 | 0| 0| 6 |
| SWIS2050(2R) | A | Residential tariff ($/kWh) | 2 | 4 | 0.50 | 2| 0| 0 | 4| 0| 0 |
| SWIS2050(2R) | L | Residential storage systems (Systems) | 1 | 5 | 0.20 | 1| 0| 0 | 3| 2| 0 |
| SWIS2050(2R) | A | Residential storage savings ($/(customer*year)) | 5 | 1 | 5.00 | 4| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Resi storage capacity per system (kW*Hour) | 3 | 3 | 1.00 | 3| 0| 0 | 2| 0| 1 |
| SWIS2050(2R) | A | Required thermal network additions (Dmnl) | 3 | 3 | 1.00 | 2| 0| 1 | 3| 0| 0 |
| SWIS2050(2R) | A | Renewables adjustments (Dmnl) | 2 | 4 | 0.50 | 1| 0| 1 | 0| 4| 0 |
| SWIS2050(2R) | C | Private PV capacity factor (Dmnl) | 0 | 6 | 0.00 | 0| 0| 0 | 4| 0| 2 |
| SWIS2050(2R) | L | Network storage SoC (MW*Hour) | 3 | 3 | 1.00 | 1| 2| 0 | 1| 0| 2 |
| SWIS2050(2R) | A | Large customer hourly demand (kW/customer) | 5 | 1 | 5.00 | 0| 0| 5 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Gas CT retirements (MW/Hour) | 4 | 2 | 2.00 | 1| 2| 1 | 1| 1| 0 |
| SWIS2050(2R) | F,A | Gas CC retirement (MW/Hour) | 4 | 2 | 2.00 | 1| 2| 1 | 1| 1| 0 |
| SWIS2050(2R) | A | Commercial tariff ($/kWh) | 2 | 4 | 0.50 | 2| 0| 0 | 4| 0| 0 |
| SWIS2050(2R) | L | Commercial storage systems (Systems) | 1 | 5 | 0.20 | 1| 0| 0 | 3| 2| 0 |
| SWIS2050(2R) | A | Comm storage capacity per system (Hour*kW) | 3 | 3 | 1.00 | 3| 0| 0 | 2| 0| 1 |
| SWIS2050(2R) | F,A | Coal retirement (MW/Hour) | 4 | 2 | 2.00 | 1| 2| 1 | 1| 1| 0 |
| SWIS2050(2R) | F,A | Chg in ave resi PV array (kW/system/Hour) | 5 | 1 | 5.00 | 3| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in ave comm PV array (kW/system/Hour) | 5 | 1 | 5.00 | 2| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network renewables generation (MW*Hour) | 4 | 2 | 2.00 | 4| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | F,A | Wind retirements (MW/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Wind hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Wind capacity (MW) | 2 | 3 | 0.67 | 1| 1| 0 | 2| 0| 1 |
| SWIS2050(2R) | F,A | Wave retirements (MW/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Wave hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Wave capacity (MW) | 2 | 3 | 0.67 | 1| 1| 0 | 2| 0| 1 |
| SWIS2050(2R) | L | Unit cost of residential storage ($/kWh) | 1 | 4 | 0.25 | 1| 0| 0 | 3| 1| 0 |
| SWIS2050(2R) | L | Unit cost of residential solar PV ($/kW) | 1 | 4 | 0.25 | 1| 0| 0 | 3| 1| 0 |
| SWIS2050(2R) | A | Total residential network load (MW) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network thermal generation (MW) | 3 | 2 | 1.50 | 3| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Total commercial network load (MW) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Residential storage capacity (Hour*MW) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Residential PV payback (Years) | 3 | 2 | 1.50 | 2| 1| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Residential PV capacity (MW) | 3 | 2 | 1.50 | 2| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | L | Resi storage per system (kW*Hour) | 3 | 2 | 1.50 | 1| 2| 0 | 0| 1| 1 |
| SWIS2050(2R) | A | Resi storage capex ($/customer) | 4 | 1 | 4.00 | 4| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Non-solar homes (Dmnl) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Non-solar comm premises (Dmnl) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Nominal Gas CT CF (Dmnl) | 0 | 5 | 0.00 | 0| 0| 0 | 3| 2| 0 |
| SWIS2050(2R) | A | Month of the year (Dmnl) | 3 | 2 | 1.50 | 0| 0| 3 | 0| 0| 2 |
| SWIS2050(2R) | F,A | LS solar retirements (MW/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 0| 1| 0 |
| SWIS2050(2R) | L | LS Solar PV capacity (MW) | 2 | 3 | 0.67 | 1| 1| 0 | 2| 0| 1 |
| SWIS2050(2R) | A | LS solar hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | kWh (kWh/(kW*Hour)) | 0 | 5 | 0.00 | 0| 0| 0 | 2| 0| 3 |
| SWIS2050(2R) | L | Gas fuel unit cost ($/GJ) | 2 | 3 | 0.67 | 2| 0| 0 | 2| 1| 0 |
| SWIS2050(2R) | A | Gas CT hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CC operating CF (Dmnl) | 3 | 2 | 1.50 | 3| 0| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Gas CC hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Gas CC additions (MW/Hour) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Cumulative network thermal load (MW*Hours) | 2 | 3 | 0.67 | 1| 1| 0 | 1| 0| 2 |
| SWIS2050(2R) | A | Commercial storage capacity (Hour*MW) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Commercial PV payback (Years) | 3 | 2 | 1.50 | 2| 1| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Commercial PV capacity (MW) | 3 | 2 | 1.50 | 2| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | L | Comm storage per system (kW*Hours) | 3 | 2 | 1.50 | 1| 2| 0 | 0| 1| 1 |
| SWIS2050(2R) | A | Comm storage capex ($/customer) | 4 | 1 | 4.00 | 4| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Coal operating CF (Dmnl) | 3 | 2 | 1.50 | 3| 0| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Coal hourly capex ($/(MW*Hour)) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Coal additions (MW/Hour) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chgs to energy intensity (GWh/$m/year/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in wind capex ($/MW/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in wave capex ($/(MW*Hour)) | 4 | 1 | 4.00 | 1| 3| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in network storage capacity (MW) | 3 | 2 | 1.50 | 1| 1| 1 | 1| 0| 1 |
| SWIS2050(2R) | F,A | Chg in gas fuel cost ($/(Hour*GJ)) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in coal fuel cost ($/GJ/Hour) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Biogas retirements (MW/Hour) | 4 | 1 | 4.00 | 1| 3| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Biogas hourly capex ($/MW/Hour) | 4 | 1 | 4.00 | 2| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Biogas capacity (MW) | 2 | 3 | 0.67 | 1| 1| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Annual USBS costs ($/year) | 4 | 1 | 4.00 | 0| 0| 4 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual resi PV imports (kWh/customer/year) | 3 | 2 | 1.50 | 3| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Annual resi PV generation (kWh/(customer*year)) | 4 | 1 | 4.00 | 4| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual private PV generation (Hour*MW) | 3 | 2 | 1.50 | 0| 0| 3 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual network thermal generation (MW*Hour) | 3 | 2 | 1.50 | 3| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual network renewables costs ($) | 4 | 1 | 4.00 | 4| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network generation (MW*Hour) | 2 | 3 | 0.67 | 2| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Annual comm PV imports (kWh/customer/year) | 3 | 2 | 1.50 | 3| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Annual comm PV generation (kWh/(customer*year)) | 4 | 1 | 4.00 | 4| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual comm PV exports (kWh/(customer*year)) | 4 | 1 | 4.00 | 3| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Wind replacements (MW/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wind CF (Dmnl) | 0 | 4 | 0.00 | 0| 0| 0 | 0| 3| 1 |
| SWIS2050(2R) | A | Wave replacements (MW/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wave CF (Dmnl) | 0 | 4 | 0.00 | 0| 0| 0 | 0| 3| 1 |
| SWIS2050(2R) | A | Utility scale hourly capex ($/(MW*Hour*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network load from storage home (kW) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network load from comm storage premises (kW) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total hourly demand met by customers (MW) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Total hourly demand - resi customers (kW) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total hourly demand - large customers (kW) | 2 | 2 | 1.00 | 2| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Total hourly demand - comm customers (kW) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total annual system generation (MW*Hour) | 4 | 0 | ∞ | 2| 2| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Total annual demand (GWh/year) | 3 | 1 | 3.00 | 3| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Thermal network annual load / capacity (Dmnl) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Swap (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Solar only homes (Dmnl) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Solar only comm premises (Dmnl) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Residential FIT fraction (Dmnl) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Residential FIT ($/kWh) | 2 | 2 | 1.00 | 2| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Resi storage penetration (Dmnl) | 3 | 1 | 3.00 | 1| 2| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Resi storage demand (kW) | 1 | 3 | 0.33 | 0| 1| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Resi PV additions (Dmnl) | 3 | 1 | 3.00 | 1| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Renewables total share (1) | 4 | 0 | ∞ | 4| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Positive network load (MW) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | PHES hourly capex ($/(MW*Hour*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | PHES FOM ($/(MW*Hour*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Optimum resi storage hours (Hours) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Optimum comm storage hours (Hours) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | F,A | NS discharge out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Nominal gas CT annual generation capacity (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Nominal gas CC annual generation capacity (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Nominal coal annual generation capacity (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Nominal annual thermal generation capacity (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Network unit cost ($/(MW*Hour)) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Network storage losses (MW) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | F,A | Net residential customer growth (Customers/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Net resi PV production (kW) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Net comm PV production (kW) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Net annual network demand (Hour*MW) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Negative network load (MW) | 2 | 2 | 1.00 | 1| 1| 0 | 0| 2| 0 |
| SWIS2050(2R) | A | Maximum network storage (Hour*MW) | 3 | 1 | 3.00 | 2| 1| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Max resi PV systems (Systems) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Max comm PV systems (Systems) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | LSS replacements (MW/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | LS solar CF (Dmnl) | 0 | 4 | 0.00 | 0| 0| 0 | 0| 3| 1 |
| SWIS2050(2R) | L | Large customers (Customers) | 1 | 3 | 0.33 | 1| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Indicated resi PV array (kW/system) | 3 | 1 | 3.00 | 1| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Indicated comm PV array (kW/system) | 3 | 1 | 3.00 | 1| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly WG out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly WaveG out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly TNU out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly NTL out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly NS losses out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly NL out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Hourly network generation plus storage discharges (MW) | 3 | 1 | 3.00 | 3| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly LSS out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly GCT out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly GCC out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly demand met out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly CG out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Hourly BG out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF-solar PV penetration (Dmnl) | 0 | 4 | 0.00 | 0| 0| 0 | 0| 4| 0 |
| SWIS2050(2R) | F,A | Gen curtailed out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Gas CT fuel costs ($/(MW*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Gas CT emissions out (tCO2e) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Gas CC fuel costs ($/(MW*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Gas CC emissions out (tCO2e) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Excess resi generation (kW) | 1 | 3 | 0.33 | 1| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Excess comm generation (kW) | 1 | 3 | 0.33 | 1| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | L | Energy intensity (GWh/$m/year) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | F,A | DNR out (MW) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | A | Demand met by network renewables (MW) | 2 | 2 | 1.00 | 2| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | D-Ave/Bio (Dmnl) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | L | Cumulative wind generation (MW* Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative wave generation (MW* Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative network storage losses (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative network storage discharge (Hour*MW) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative network load (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative LS solar generation (MW* Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative generation curtailed (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative gas CT emissions (Hour*tCO2e) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative gas CC emissions (Hour*tCO2e) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative demand met by network renewables (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative demand met by customers (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative coal emissions (Hour*tCO2e) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cumulative biogas generation (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cum thermal network undergeneration (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cum gas CC generation (MW* Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cum CT generation (MW* Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Cum coal generation (MW*Hour) | 2 | 2 | 1.00 | 1| 1| 0 | 1| 0| 1 |
| SWIS2050(2R) | L | Commercial FIT fraction (Dmnl) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Commercial FIT ($/kWh) | 2 | 2 | 1.00 | 2| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Comm storage penetration (Dmnl) | 3 | 1 | 3.00 | 1| 2| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Comm storage demand (kW) | 1 | 3 | 0.33 | 0| 1| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Comm PV additions (Dmnl) | 3 | 1 | 3.00 | 1| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Coal fuel unit cost ($/GJ) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Coal fuel costs ($/(MW*Hour)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Coal emission out (tCO2e) | 3 | 1 | 3.00 | 1| 1| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Chgs to GSP ($m/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in unit cost of resi storage ($/kWh/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in resi FIT fraction (1/Hour) | 3 | 1 | 3.00 | 1| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in large customers (Customers/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in commercial customers (Customers/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Chg in comm FIT fraction (1/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | C-Ave/Wave (Dmnl) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Biogas replacements (MW/Hour) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Biogas generation (MW) | 2 | 2 | 1.00 | 2| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | Biogas CF (Dmnl) | 0 | 4 | 0.00 | 0| 0| 0 | 1| 3| 0 |
| SWIS2050(2R) | A | B-Ave/Wind (Dmnl) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Ave hourly large customer demand (kWh/(Hour*customer)) | 3 | 1 | 3.00 | 1| 2| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Annual wind generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual wave generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual thermal network costs ($) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual residential PV generation (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual residential customer demand (GWh/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual resi PV exports (kWh/(customer*year)) | 3 | 1 | 3.00 | 2| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual PHES costs ($/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network storage costs ($) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network generation plus storage discharges (Hour*MW) | 3 | 1 | 3.00 | 3| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Annual LS solar generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual large customer demand (GWh/year) | 2 | 2 | 1.00 | 2| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Annual gas CT generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual gas CT emissions (tCO2e) | 3 | 1 | 3.00 | 0| 0| 3 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual gas CC generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual gas CC emissions (tCO2e) | 3 | 1 | 3.00 | 0| 0| 3 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual emissions (tCO2e) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual commercial PV generation (MW*Hour/year) | 3 | 1 | 3.00 | 3| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual commercial customer demand (GWh/year) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual coal generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual coal emissions (tCO2e) | 3 | 1 | 3.00 | 0| 0| 3 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual biogas generation (MW*Hour) | 2 | 2 | 1.00 | 0| 0| 2 | 2| 0| 0 |
| SWIS2050(2R) | A | A-Ave/LSS (Dmnl) | 2 | 2 | 1.00 | 1| 1| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | 1 customer (customer) | 0 | 4 | 0.00 | 0| 0| 0 | 0| 2| 2 |
| SWIS2050(2R) | A | Wind share by cost (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Wind capex ($/MW) | 1 | 2 | 0.50 | 1| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Wave share by cost (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Wave capex ($/MW) | 1 | 2 | 0.50 | 1| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Utility scale battery storage capex per MWh ($/(MW*Hour)) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | USBS FOM ($/(MW*Hour*Hour)) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Unit cost of utility scale solar PV ($/kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Unit cost of utility scale battery storage ($/kWh) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Unit cost of commercial solar PV ($/kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Unit cost of comm battery storage ($/kWh) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total private storage capacity (Hour*MW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total private PV generation (MW*Hour/year) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Total private PV capacity (MW) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Total network load from solar only homes (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network load from non-solar homes (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network load from non-solar comm premises (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Total network load from comm solar premises (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Thermal plant construction time (Years) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Thermal network undergeneration (MW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Retired gas CT generation (MW/Hour) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Retired gas CC generation (MW/Hour) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Retired coal generation (MW/Hour) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Residential storage penetration (Dmnl) | 3 | 0 | ∞ | 1| 2| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Residential storage payback (Years) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Residential PV penetration (Dmnl) | 3 | 0 | ∞ | 1| 2| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Resi storage losses (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Resi storage imports (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Resi storage import fraction (Dmnl) | 2 | 1 | 2.00 | 0| 2| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Resi storage exports (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Resi storage export fraction (Dmnl) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Resi PV purchase adj time (year) | 0 | 3 | 0.00 | 0| 0| 0 | 2| 1| 0 |
| SWIS2050(2R) | A | Resi PV import fraction (Dmnl) | 2 | 1 | 2.00 | 0| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Resi PV capex ($/system) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | PHES capacity (MW*Hour) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Normal annual large cust electricity charges ($/(year*customer)) | 3 | 0 | ∞ | 2| 1| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Normal annual comm electricity charges ($/(year*customer)) | 3 | 0 | ∞ | 2| 1| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Nominal Gas CC CF (Dmnl) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | C | Nominal Coal CF (Dmnl) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Network load from resi storage home (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Network load from resi solar only home (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Network load from comm storage premises (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Network load from comm solar premises (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Network battery storage capacity (MW*Hour) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Net hourly network demand (MW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | LSS share by cost (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | LS solar capex ($/MW) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Large customer tariff ($/kWh) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Initial thermal plant (MW) | 3 | 0 | ∞ | 3| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | LI,A | Initial residential FIT fraction (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | LI,C | Initial gas CT capacity (MW) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | LI,C | Initial gas CC capacity (MW) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | LI,A | Initial comm FIT fraction (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | LI,C | Initial coal capacity (MW) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Industry energy demand (GWh/year) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Hourly gas CT emissions (tCO2e) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Hourly gas CC emissions (tCO2e) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Hourly demand balance (MW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Hourly coal emissions (tCO2e) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | GSP annual growth fraction (1/year) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | L | GSP ($m) | 1 | 2 | 0.50 | 1| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | GJ/MWh (GJ/(MW*Hour)) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Generation curtailed (MW) | 2 | 1 | 2.00 | 0| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CT retirement period (year) | 2 | 1 | 2.00 | 1| 0| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Gas CT operating hours (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CT operating CF (Dmnl) | 3 | 0 | ∞ | 3| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Gas CC retirement period (year) | 2 | 1 | 2.00 | 1| 0| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Gas CC operating hours (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | CommPV capex ($/system) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Commercial storage penetration (Dmnl) | 3 | 0 | ∞ | 1| 2| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Commercial storage payback (Years) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Commercial PV penetration (Dmnl) | 3 | 0 | ∞ | 1| 2| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Comm storage losses (kW) | 2 | 1 | 2.00 | 2| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Comm storage imports (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Comm storage import fraction (Dmnl) | 2 | 1 | 2.00 | 0| 2| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Comm storage exports (kW) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Comm storage export fraction (Dmnl) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Comm PV purchase adj time (year) | 0 | 3 | 0.00 | 0| 0| 0 | 1| 2| 0 |
| SWIS2050(2R) | A | Comm import fraction (Dmnl) | 2 | 1 | 2.00 | 0| 2| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Coal retirement period (year) | 2 | 1 | 2.00 | 1| 0| 1 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Coal operating hours (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Biogas share by cost (Dmnl) | 2 | 1 | 2.00 | 1| 1| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual wind costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual wave costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual total demand met by customers (Hour*MW) | 2 | 1 | 2.00 | 0| 0| 2 | 0| 1| 0 |
| SWIS2050(2R) | A | Annual network thermal load (MW*Hour) | 2 | 1 | 2.00 | 0| 0| 2 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network storage losses (Hour*MW) | 2 | 1 | 2.00 | 0| 0| 2 | 0| 1| 0 |
| SWIS2050(2R) | A | Annual network storage discharge (Hour*MW) | 2 | 1 | 2.00 | 0| 0| 2 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network generation costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual network generation and storage costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual LS solar costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual generation curtailed (MW*Hour) | 2 | 1 | 2.00 | 0| 0| 2 | 0| 1| 0 |
| SWIS2050(2R) | A | Annual gas CT costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual gas CC costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Annual demand per large customer (GWh/customer/year) | 0 | 3 | 0.00 | 0| 0| 0 | 3| 0| 0 |
| SWIS2050(2R) | A | Annual demand met by network renewables (MW*Hour) | 2 | 1 | 2.00 | 0| 0| 2 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual demand balance ratio (Dmnl) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual coal costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual biogas costs ($) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Addtional resi storage savings ($/(customer*year)) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | A | Addtional comm storage savings ($/(customer*year)) | 2 | 1 | 2.00 | 1| 1| 0 | 0| 1| 0 |
| SWIS2050(2R) | F,A | Additive annual emissions (tCO2e) | 2 | 1 | 2.00 | 1| 0| 1 | 1| 0| 0 |
| SWIS2050(2R) | A | 2050 unit cost of gas fuel ($/GJ) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | 2050 unit cost of coal fuel ($/GJ) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | 2050 energy intensity (GWh/(year*$m)) | 2 | 1 | 2.00 | 2| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Year label (year ) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | Year 0 (Dmnl) | 1 | 1 | 1.00 | 0| 0| 1 | 0| 0| 1 |
| SWIS2050(2R) | A | Wind hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Wind additions (MW/Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Wave hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Wave additions (MW/Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | System/customer (system/customer) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Residential demand met by solar PV (kW) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Resi solar switch (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Resi solar imports (kW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Resi solar exports (kW) | 1 | 1 | 1.00 | 1| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Resi solar adjustment time (Hours) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | PHES capex per MWh ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | PHES - battery split (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | F,A | NS discharge in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Normal annual resi electricity charges ($/(year*customer)) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Net private storage hours (Hour) | 2 | 0 | ∞ | 1| 1| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Minimum private storage discharge (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 0| 0| 2 |
| SWIS2050(2R) | A | Min gas CC generation capacity (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Min coal generation capacity (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | A | Max gas CC generation capacity (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Max coal generation capacity (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | LS solar hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | LS solar additions (MW/Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Initial residential tariff ($/kWh) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | C | Initial network unit cost ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | LI,C | Initial gas fuel cost ($/GJ) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | LI,C | Initial energy intensity (GWh/$m/year) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | C | Initial commercial tariff ($/kWh) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | LI,C | Initial coal fuel cost ($/GJ) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Initial annual network thermal load (MW*Hour) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Hourly WG in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly WaveG in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly TNU in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly NTL in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly NS losses in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly NL in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly LSS in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly GCT in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly GCC in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly demand met in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly CG in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | F,A | Hourly BG in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | GF- storage (Hours) | 0 | 2 | 0.00 | 0| 0| 0 | 0| 0| 2 |
| SWIS2050(2R) | F,A | Gen curtailed in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CT hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Gas CT emissions in (tCO2e) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CT % (Dmnl) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Gas CC% (Dmnl) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Gas CC hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Gas CC emissions in (tCO2e) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Gas CC available hours (Dmnl) | 1 | 1 | 1.00 | 0| 0| 1 | 0| 0| 1 |
| SWIS2050(2R) | F,A | DNR in (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Diesel capacity (MW) | 2 | 0 | ∞ | 1| 1| 0 | 0| 0| 0 |
| SWIS2050(2R) | L | Cumulative gas CT operating hours (Hours) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Cumulative gas CC operating hours (Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Cumulative coal operating hours (Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Commercial demand met by solar PV (kW) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Comm solar switch (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Comm solar imports (kW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Comm solar exports (kW) | 1 | 1 | 1.00 | 1| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | Comm demand lookup (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 0| 0| 2 |
| SWIS2050(2R) | A | Coal hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Coal emissions in (tCO2e) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Coal available hours (Dmnl) | 1 | 1 | 1.00 | 0| 0| 1 | 1| 0| 0 |
| SWIS2050(2R) | A | Coal % (Dmnl) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Biogas hourly operating costs ($/Hour) | 2 | 0 | ∞ | 2| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | F,A | Biogas additions (MW/Hour) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Battery storage loss fraction (Dmnl) | 0 | 2 | 0.00 | 0| 0| 0 | 2| 0| 0 |
| SWIS2050(2R) | A | Annual thermal network undergeneration (MW*Hour) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | Annual network load (MW*Hour) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | Annual large customer growth fraction (1/year) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Annual demand balance (Hour*MW) | 2 | 0 | ∞ | 1| 1| 0 | 0| 0| 0 |
| SWIS2050(2R) | A | Annual comm customer growth fraction (1/year) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Addtl Gas CT reqd (MW) | 1 | 1 | 1.00 | 1| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | 2050 Wind costs per MWh* ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | 2050 Wind costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | C | 2050 Wave costs per MWh* ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | 2050 Wave costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | C | 2050 LSS costs per MWh* ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | 2050 LSS costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | C | 2050 Biogas costs per MWh* ($/(MW*Hour)) | 0 | 2 | 0.00 | 0| 0| 0 | 1| 1| 0 |
| SWIS2050(2R) | A | 2050 Biogas costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | 2030 Wind costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | 2030 Wave costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | 2030 LSS costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | A | 2030 Biogas costs per MWh ($/(MW*Hour)) | 2 | 0 | ∞ | 0| 0| 2 | 0| 0| 0 |
| SWIS2050(2R) | C | years per hour (Years/Hour) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Wind VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wind share (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wind PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | Wind lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Wind FOM ($/(MW*year)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wind capex adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Wind capacity adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Wave VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wave share (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wave PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | Wave lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Wave FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wave capex adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Wave capex 2050 ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wave capacity adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Utility solar PV fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Utility scale battery storage PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Utility battery storage fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | USBS opex ($/(MW*Hour)/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| .Control | C | TIME STEP (Hour ) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | time lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Tariff multiplier switch (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | start year (year) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Solar capacity adj time (year) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| .Control | A | SAVEPER (Hour ) | 1 | 0 | ∞ | 1| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Resi storage switch (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | Resi solar lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Resi FIT adjustment time (Hours) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | Resi demand lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | PHES PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | PHES opex % (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Onshore wind capex 2050 ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Network storage switch (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Network storage minimum discharge level (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Network storage loss fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Network generation storage ratio (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | MW/GW (MW*Hour/GWh) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Maximum resi PV penetration (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Maximum comm PV generation (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | LSS share (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | LS solar VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | LS solar PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | LS solar lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | LS solar FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | kWh/MWh (kWh/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Initial residential FIT ($/kWh) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Initial large customer tariff ($/kWh) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Initial commercial FIT ($/kWh) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A | Hour of the day (Hour) | 1 | 0 | ∞ | 0| 0| 1 | 0| 0| 0 |
| SWIS2050(2R) | A,T | GF-resi PV (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF-network additions (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | GF-comm PV (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF- resi storage imports (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF- resi storage exports (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | GF- resi array (kW/system) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF- comm storage imports (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | GF- comm storage exports (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | A,T | GF- comm array (kW/system) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Generation fraction of tariff (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas fuel cost adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT TE (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Gas CT PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT phase out period (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT emission per MWh (tCO2e/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CT capex ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas cost multiplier (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC TE (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Gas CC PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC phase out period (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC emissions per MWh (tCO2e/(MW)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Gas CC capex ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Energy intensity multiplier (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | EI adjustment period (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C,F | Diesel retirements (MW/Hour) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C,F | Diesel additions (MW/Hour) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | L | Cumulative emissions (tCO2e*Hour) | 1 | 0 | ∞ | 1| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Correction factor (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Commercial storage fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Commercial solar PV fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Comm storage switch (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | A,T | Comm solar lookup (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 0| 1 |
| SWIS2050(2R) | C | Comm FIT adjustment time (Hours) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal TE (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Coal PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal phase out period (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal fuel cost adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal emissions per MWh (tCO2e/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal cost multiplier (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Coal capex ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas VOM ($/(MW*Hour)) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas share (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas PMT (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas FOM ($/MW/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas capex ($/MW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Biogas capacity adj time (Years) | 0 | 1 | 0.00 | 0| 0| 0 | 0| 1| 0 |
| SWIS2050(2R) | C | Annual residential growth fraction (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Annual residential demand growth fraction (1/year) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | 2050 unit cost of residential storage ($/kWh) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | 2050 unit cost of residential solar PV ($/kW) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | 2050 residential FIT fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | 2050 comm FIT fraction (Dmnl) | 0 | 1 | 0.00 | 0| 0| 0 | 1| 0| 0 |
| SWIS2050(2R) | C | Wind life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Wave life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | PHES life (year) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Nominal gas CT life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Nominal gas CC life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Nominal coal life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | LS solar life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| .Control | C | INITIAL TIME (Hour) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| .Control | C | FINAL TIME (Hour) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| SWIS2050(2R) | C | Biogas life (Years) | ( 0| 0) | ∞ | 0| 0| 0 | 0| 0| 0 |
| Quick Links: | A | B | C | D | E | F | G | H | I | J | K | L | M | N | O | P | Q | R | S | T | U | V | W | X | Y | Z |
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| SWIS2050(2R) | A,T | GF- storage (Hours) |
| SWIS2050(2R) | A,T | GF- comm array (kW/system) | Both |
| SWIS2050(2R) | A,T | GF- comm storage exports (Dmnl) | Right |
| SWIS2050(2R) | A,T | GF- comm storage imports (Dmnl) | Both |
| SWIS2050(2R) | A,T | GF- resi array (kW/system) | Both |
| SWIS2050(2R) | A,T | GF- resi storage exports (Dmnl) | Right |
| SWIS2050(2R) | A,T | GF- resi storage imports (Dmnl) | Both |
| SWIS2050(2R) | A,T | GF- storage (Hours) | Right |
| SWIS2050(2R) | A,T | GF-comm PV (Dmnl) | Both |
| SWIS2050(2R) | A,T | GF-resi PV (Dmnl) | Both |
| SWIS2050(2R) | A,T | GF-solar PV penetration (Dmnl) | Left |
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| SWIS2050(2R) | A | Addtional comm storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Addtional resi storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Commercial demand met by solar PV (kW) |
| SWIS2050(2R) | A | Commercial storage payback (Years) |
| SWIS2050(2R) | A | Gas CT generation (MW) |
| SWIS2050(2R) | A | Negative network load (MW) |
| SWIS2050(2R) | A | Positive network load (MW) |
| SWIS2050(2R) | A | Residential demand met by solar PV (kW) |
| SWIS2050(2R) | A | Residential storage payback (Years) |
| SWIS2050(2R) | A | Total hourly demand met by customers (MW) |
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| SWIS2050(2R) | C | 1 customer (customer) |
| SWIS2050(2R) | C | 1 hour (Hour) |
| SWIS2050(2R) | C | 1 system (system) |
| SWIS2050(2R) | C | 1 system/ customer (system/customer) |
| SWIS2050(2R) | C | 1 year (year) |
| SWIS2050(2R) | A | 2030 Biogas costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 LSS costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 Wave costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2030 Wind costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2050 Biogas costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Biogas costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 comm FIT fraction (Dmnl) |
| SWIS2050(2R) | A | 2050 energy intensity (GWh/(year*$m)) |
| SWIS2050(2R) | A | 2050 LSS costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 LSS costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 residential FIT fraction (Dmnl) |
| SWIS2050(2R) | A | 2050 unit cost of coal fuel ($/GJ) |
| SWIS2050(2R) | A | 2050 unit cost of gas fuel ($/GJ) |
| SWIS2050(2R) | C | 2050 unit cost of residential solar PV ($/kW) |
| SWIS2050(2R) | C | 2050 unit cost of residential storage ($/kWh) |
| SWIS2050(2R) | A | 2050 Wave costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Wave costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | A | 2050 Wind costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | C | 2050 Wind costs per MWh* ($/(MW*Hour)) |
| SWIS2050(2R) | A | A-Ave/LSS (Dmnl) |
| SWIS2050(2R) | F,A | Additive annual emissions (tCO2e) |
| SWIS2050(2R) | A | Addtional comm storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Addtional resi storage savings ($/(customer*year)) |
| SWIS2050(2R) | A | Addtl Gas CT reqd (MW) |
| SWIS2050(2R) | A | Annual biogas costs ($) |
| SWIS2050(2R) | A | Annual biogas generation (MW*Hour) |
| SWIS2050(2R) | A | Annual coal costs ($) |
| SWIS2050(2R) | A | Annual coal emissions (tCO2e) |
| SWIS2050(2R) | A | Annual coal generation (MW*Hour) |
| SWIS2050(2R) | A | Annual comm customer growth fraction (1/year) |
| SWIS2050(2R) | A | Annual comm PV exports (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual comm PV generation (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual comm PV imports (kWh/customer/year) |
| SWIS2050(2R) | A | Annual comm PV savings ($/customer/year) |
| SWIS2050(2R) | A | Annual commercial customer demand (GWh/year) |
| SWIS2050(2R) | A | Annual commercial PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Annual demand balance (Hour*MW) |
| SWIS2050(2R) | A | Annual demand balance ratio (Dmnl) |
| SWIS2050(2R) | A | Annual demand met by network renewables (MW*Hour) |
| SWIS2050(2R) | A | Annual demand per comm customer (GWh/(year*customer)) |
| SWIS2050(2R) | C | Annual demand per large customer (GWh/customer/year) |
| SWIS2050(2R) | A | Annual emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CC costs ($) |
| SWIS2050(2R) | A | Annual gas CC emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CC generation (MW*Hour) |
| SWIS2050(2R) | A | Annual gas CT costs ($) |
| SWIS2050(2R) | A | Annual gas CT emissions (tCO2e) |
| SWIS2050(2R) | A | Annual gas CT generation (MW*Hour) |
| SWIS2050(2R) | A | Annual generation curtailed (MW*Hour) |
| SWIS2050(2R) | A | Annual large customer demand (GWh/year) |
| SWIS2050(2R) | A | Annual large customer growth fraction (1/year) |
| SWIS2050(2R) | A | Annual LS solar costs ($) |
| SWIS2050(2R) | A | Annual LS solar generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network generation and storage costs ($) |
| SWIS2050(2R) | A | Annual network generation costs ($) |
| SWIS2050(2R) | A | Annual network generation plus storage discharges (Hour*MW) |
| SWIS2050(2R) | A | Annual network load (MW*Hour) |
| SWIS2050(2R) | A | Annual network renewables costs ($) |
| SWIS2050(2R) | A | Annual network renewables generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network storage costs ($) |
| SWIS2050(2R) | A | Annual network storage discharge (Hour*MW) |
| SWIS2050(2R) | A | Annual network storage losses (Hour*MW) |
| SWIS2050(2R) | A | Annual network thermal generation (MW*Hour) |
| SWIS2050(2R) | A | Annual network thermal load (MW*Hour) |
| SWIS2050(2R) | A | Annual PHES costs ($/year) |
| SWIS2050(2R) | A | Annual private PV generation (Hour*MW) |
| SWIS2050(2R) | A | Annual resi PV exports (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual resi PV generation (kWh/(customer*year)) |
| SWIS2050(2R) | A | Annual resi PV imports (kWh/customer/year) |
| SWIS2050(2R) | A | Annual resi PV savings ($/customer/year) |
| SWIS2050(2R) | A | Annual residential customer demand (GWh/year) |
| SWIS2050(2R) | C | Annual residential demand growth fraction (1/year) |
| SWIS2050(2R) | C | Annual residential growth fraction (1/year) |
| SWIS2050(2R) | A | Annual residential PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Annual thermal network costs ($) |
| SWIS2050(2R) | A | Annual thermal network undergeneration (MW*Hour) |
| SWIS2050(2R) | A | Annual total demand met by customers (Hour*MW) |
| SWIS2050(2R) | A | Annual USBS costs ($/year) |
| SWIS2050(2R) | A | Annual wave costs ($) |
| SWIS2050(2R) | A | Annual wave generation (MW*Hour) |
| SWIS2050(2R) | A | Annual wind costs ($) |
| SWIS2050(2R) | A | Annual wind generation (MW*Hour) |
| SWIS2050(2R) | L | Ave annual residential demand per customer (kWh/customer/year) |
| SWIS2050(2R) | L | Ave comm PV array (kW/system) |
| SWIS2050(2R) | A | Ave hourly commercial demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | A | Ave hourly large customer demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | A | Ave hourly residential demand (kWh/(Hour*customer)) |
| SWIS2050(2R) | L | Ave resi PV array (kW/system) |
| SWIS2050(2R) | A | Average 2050 renewables costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | B-Ave/Wind (Dmnl) |
| SWIS2050(2R) | C | Battery storage loss fraction (Dmnl) |
| SWIS2050(2R) | F,A | Biogas additions (MW/Hour) |
| SWIS2050(2R) | L | Biogas capacity (MW) |
| SWIS2050(2R) | C | Biogas capacity adj time (Years) |
| SWIS2050(2R) | C | Biogas capex ($/MW) |
| SWIS2050(2R) | C | Biogas CF (Dmnl) |
| SWIS2050(2R) | C | Biogas FOM ($/MW/year) |
| SWIS2050(2R) | A | Biogas generation (MW) |
| SWIS2050(2R) | A | Biogas hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Biogas hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Biogas hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Biogas life (Years) |
| SWIS2050(2R) | C | Biogas PMT (1/year) |
| SWIS2050(2R) | A | Biogas replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Biogas retirements (MW/Hour) |
| SWIS2050(2R) | C | Biogas share (Dmnl) |
| SWIS2050(2R) | A | Biogas share by cost (Dmnl) |
| SWIS2050(2R) | C | Biogas VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | C-Ave/Wave (Dmnl) |
| SWIS2050(2R) | C | Calendar year (year ) |
| SWIS2050(2R) | F,A | Chg in ave comm PV array (kW/system/Hour) |
| SWIS2050(2R) | F,A | Chg in ave resi PV array (kW/system/Hour) |
| SWIS2050(2R) | F,A | Chg in coal fuel cost ($/GJ/Hour) |
| SWIS2050(2R) | F,A | Chg in comm FIT fraction (1/Hour) |
| SWIS2050(2R) | F,A | Chg in comm storage systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in commercial customers (Customers/Hour) |
| SWIS2050(2R) | F,A | Chg in commercial PV systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in gas fuel cost ($/(Hour*GJ)) |
| SWIS2050(2R) | F,A | Chg in large customers (Customers/Hour) |
| SWIS2050(2R) | F,A | Chg in network storage capacity (MW) |
| SWIS2050(2R) | F,A | Chg in resi FIT fraction (1/Hour) |
| SWIS2050(2R) | F,A | Chg in resi solar PV systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in resi storage systems (Systems/Hour) |
| SWIS2050(2R) | F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) |
| SWIS2050(2R) | F,A | Chg in unit cost of resi storage ($/kWh/Hour) |
| SWIS2050(2R) | F,A | Chg in wave capex ($/(MW*Hour)) |
| SWIS2050(2R) | F,A | Chg in wind capex ($/MW/Hour) |
| SWIS2050(2R) | F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) |
| SWIS2050(2R) | F,A | Chgs to energy intensity (GWh/$m/year/Hour) |
| SWIS2050(2R) | F,A | Chgs to GSP ($m/Hour) |
| SWIS2050(2R) | A | Coal % (Dmnl) |
| SWIS2050(2R) | F,A | Coal additions (MW/Hour) |
| SWIS2050(2R) | A | Coal available hours (Dmnl) |
| SWIS2050(2R) | L | Coal capacity (MW) |
| SWIS2050(2R) | C | Coal capex ($/MW) |
| SWIS2050(2R) | C | Coal cost multiplier (Dmnl) |
| SWIS2050(2R) | F,A | Coal emission out (tCO2e) |
| SWIS2050(2R) | F,A | Coal emissions in (tCO2e) |
| SWIS2050(2R) | C | Coal emissions per MWh (tCO2e/MW) |
| SWIS2050(2R) | C | Coal FOM ($/MW/year) |
| SWIS2050(2R) | C | Coal fuel cost adj time (Years) |
| SWIS2050(2R) | A | Coal fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | L | Coal fuel unit cost ($/GJ) |
| SWIS2050(2R) | A | Coal generation (MW) |
| SWIS2050(2R) | A | Coal hourly capex ($/(MW*Hour)) |
| SWIS2050(2R) | A | Coal hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Coal hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Coal operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Coal operating hours (Dmnl) |
| SWIS2050(2R) | C | Coal phase out period (Years) |
| SWIS2050(2R) | C | Coal PMT (1/year) |
| SWIS2050(2R) | F,A | Coal retirement (MW/Hour) |
| SWIS2050(2R) | A | Coal retirement period (year) |
| SWIS2050(2R) | C | Coal TE (Dmnl) |
| SWIS2050(2R) | C | Coal VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A,T | Comm demand lookup (Dmnl) |
| SWIS2050(2R) | C | Comm FIT adjustment time (Hours) |
| SWIS2050(2R) | A | Comm import fraction (Dmnl) |
| SWIS2050(2R) | A | Comm PV additions (Dmnl) |
| SWIS2050(2R) | C | Comm PV purchase adj time (year) |
| SWIS2050(2R) | A | Comm solar exports (kW) |
| SWIS2050(2R) | A | Comm solar imports (kW) |
| SWIS2050(2R) | A,T | Comm solar lookup (Dmnl) |
| SWIS2050(2R) | C | Comm solar switch (Dmnl) |
| SWIS2050(2R) | A | Comm storage capacity per system (Hour*kW) |
| SWIS2050(2R) | A | Comm storage capex ($/customer) |
| SWIS2050(2R) | F,A | Comm storage charge (kW) |
| SWIS2050(2R) | A | Comm storage demand (kW) |
| SWIS2050(2R) | F,A | Comm storage discharge (kW) |
| SWIS2050(2R) | A | Comm storage export fraction (Dmnl) |
| SWIS2050(2R) | A | Comm storage exports (kW) |
| SWIS2050(2R) | A | Comm storage import fraction (Dmnl) |
| SWIS2050(2R) | A | Comm storage imports (kW) |
| SWIS2050(2R) | F,A | Comm storage losses (kW) |
| SWIS2050(2R) | A | Comm storage penetration (Dmnl) |
| SWIS2050(2R) | L | Comm storage per system (kW*Hours) |
| SWIS2050(2R) | C | Comm storage switch (Dmnl) |
| SWIS2050(2R) | L | Commercial customers (Customers) |
| SWIS2050(2R) | A | Commercial demand met by solar PV (kW) |
| SWIS2050(2R) | A | Commercial FIT ($/kWh) |
| SWIS2050(2R) | L | Commercial FIT fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial hourly demand (kW) |
| SWIS2050(2R) | A | Commercial PV capacity (MW) |
| SWIS2050(2R) | A | Commercial PV payback (Years) |
| SWIS2050(2R) | A | Commercial PV penetration (Dmnl) |
| SWIS2050(2R) | L | Commercial PV systems (Systems) |
| SWIS2050(2R) | A | Commercial SCM (Dmnl) |
| SWIS2050(2R) | A | Commercial solar generation (kW) |
| SWIS2050(2R) | C | Commercial solar PV fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial storage capacity (Hour*MW) |
| SWIS2050(2R) | C | Commercial storage fraction (Dmnl) |
| SWIS2050(2R) | A | Commercial storage payback (Years) |
| SWIS2050(2R) | A | Commercial storage penetration (Dmnl) |
| SWIS2050(2R) | A | Commercial storage savings ($/(customer*year)) |
| SWIS2050(2R) | L | Commercial storage systems (Systems) |
| SWIS2050(2R) | A | Commercial tariff ($/kWh) |
| SWIS2050(2R) | A | CommPV capex ($/system) |
| SWIS2050(2R) | C | Correction factor (Dmnl) |
| SWIS2050(2R) | L | Cum coal generation (MW*Hour) |
| SWIS2050(2R) | L | Cum CT generation (MW* Hour) |
| SWIS2050(2R) | L | Cum gas CC generation (MW* Hour) |
| SWIS2050(2R) | L | Cum thermal network undergeneration (MW*Hour) |
| SWIS2050(2R) | L | Cumulative biogas generation (MW*Hour) |
| SWIS2050(2R) | L | Cumulative coal emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative coal operating hours (Hour) |
| SWIS2050(2R) | L | Cumulative demand met by customers (MW*Hour) |
| SWIS2050(2R) | L | Cumulative demand met by network renewables (MW*Hour) |
| SWIS2050(2R) | L | Cumulative emissions (tCO2e*Hour) |
| SWIS2050(2R) | L | Cumulative gas CC emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative gas CC operating hours (Hour) |
| SWIS2050(2R) | L | Cumulative gas CT emissions (Hour*tCO2e) |
| SWIS2050(2R) | L | Cumulative gas CT operating hours (Hours) |
| SWIS2050(2R) | L | Cumulative generation curtailed (MW*Hour) |
| SWIS2050(2R) | L | Cumulative LS solar generation (MW* Hour) |
| SWIS2050(2R) | L | Cumulative network load (MW*Hour) |
| SWIS2050(2R) | L | Cumulative network storage discharge (Hour*MW) |
| SWIS2050(2R) | L | Cumulative network storage losses (MW*Hour) |
| SWIS2050(2R) | L | Cumulative network thermal load (MW*Hours) |
| SWIS2050(2R) | L | Cumulative wave generation (MW* Hour) |
| SWIS2050(2R) | L | Cumulative wind generation (MW* Hour) |
| SWIS2050(2R) | A | D-Ave/Bio (Dmnl) |
| SWIS2050(2R) | A | Demand met by network renewables (MW) |
| SWIS2050(2R) | C,F | Diesel additions (MW/Hour) |
| SWIS2050(2R) | L | Diesel capacity (MW) |
| SWIS2050(2R) | C,F | Diesel retirements (MW/Hour) |
| SWIS2050(2R) | F,A | DNR in (MW) |
| SWIS2050(2R) | F,A | DNR out (MW) |
| SWIS2050(2R) | C | EI adjustment period (Years) |
| SWIS2050(2R) | L | Energy intensity (GWh/$m/year) |
| SWIS2050(2R) | C | Energy intensity multiplier (Dmnl) |
| SWIS2050(2R) | A | Excess comm generation (kW) |
| SWIS2050(2R) | A | Excess resi generation (kW) |
| SWIS2050(2R) | F,A | Gas CC additions (MW/Hour) |
| SWIS2050(2R) | A | Gas CC available hours (Dmnl) |
| SWIS2050(2R) | L | Gas CC capacity (MW) |
| SWIS2050(2R) | C | Gas CC capex ($/MW) |
| SWIS2050(2R) | F,A | Gas CC emissions in (tCO2e) |
| SWIS2050(2R) | F,A | Gas CC emissions out (tCO2e) |
| SWIS2050(2R) | C | Gas CC emissions per MWh (tCO2e/(MW)) |
| SWIS2050(2R) | C | Gas CC FOM ($/MW/year) |
| SWIS2050(2R) | A | Gas CC fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC generation (MW) |
| SWIS2050(2R) | A | Gas CC hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Gas CC hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Gas CC operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Gas CC operating hours (Dmnl) |
| SWIS2050(2R) | C | Gas CC phase out period (Years) |
| SWIS2050(2R) | C | Gas CC PMT (1/year) |
| SWIS2050(2R) | F,A | Gas CC retirement (MW/Hour) |
| SWIS2050(2R) | A | Gas CC retirement period (year) |
| SWIS2050(2R) | C | Gas CC TE (Dmnl) |
| SWIS2050(2R) | C | Gas CC VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CC% (Dmnl) |
| SWIS2050(2R) | C | Gas cost multiplier (Dmnl) |
| SWIS2050(2R) | A | Gas CT % (Dmnl) |
| SWIS2050(2R) | F,A | Gas CT additions (MW/Hour) |
| SWIS2050(2R) | L | Gas CT capacity (MW) |
| SWIS2050(2R) | C | Gas CT capex ($/MW) |
| SWIS2050(2R) | C | Gas CT emission per MWh (tCO2e/MW) |
| SWIS2050(2R) | F,A | Gas CT emissions in (tCO2e) |
| SWIS2050(2R) | F,A | Gas CT emissions out (tCO2e) |
| SWIS2050(2R) | C | Gas CT FOM ($/MW/year) |
| SWIS2050(2R) | A | Gas CT fuel costs ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CT generation (MW) |
| SWIS2050(2R) | A | Gas CT hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Gas CT hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Gas CT hourly operating costs ($/Hour) |
| SWIS2050(2R) | A | Gas CT operating CF (Dmnl) |
| SWIS2050(2R) | F,A | Gas CT operating hours (Dmnl) |
| SWIS2050(2R) | C | Gas CT phase out period (Years) |
| SWIS2050(2R) | C | Gas CT PMT (1/year) |
| SWIS2050(2R) | A | Gas CT retirement period (year) |
| SWIS2050(2R) | F,A | Gas CT retirements (MW/Hour) |
| SWIS2050(2R) | C | Gas CT TE (Dmnl) |
| SWIS2050(2R) | C | Gas CT VOM ($/(MW*Hour)) |
| SWIS2050(2R) | C | Gas fuel cost adj time (Years) |
| SWIS2050(2R) | L | Gas fuel unit cost ($/GJ) |
| SWIS2050(2R) | F,A | Gen curtailed in (MW) |
| SWIS2050(2R) | F,A | Gen curtailed out (MW) |
| SWIS2050(2R) | A | Generation curtailed (MW) |
| SWIS2050(2R) | C | Generation fraction of tariff (Dmnl) |
| SWIS2050(2R) | A,T | GF- comm array (kW/system) |
| SWIS2050(2R) | A,T | GF- comm storage exports (Dmnl) |
| SWIS2050(2R) | A,T | GF- comm storage imports (Dmnl) |
| SWIS2050(2R) | A,T | GF- resi array (kW/system) |
| SWIS2050(2R) | A,T | GF- resi storage exports (Dmnl) |
| SWIS2050(2R) | A,T | GF- resi storage imports (Dmnl) |
| SWIS2050(2R) | A,T | GF- storage (Hours) |
| SWIS2050(2R) | A,T | GF-comm PV (Dmnl) |
| SWIS2050(2R) | A,T | GF-network additions (Dmnl) |
| SWIS2050(2R) | A,T | GF-resi PV (Dmnl) |
| SWIS2050(2R) | A,T | GF-solar PV penetration (Dmnl) |
| SWIS2050(2R) | C | GJ/MWh (GJ/(MW*Hour)) |
| SWIS2050(2R) | L | GSP ($m) |
| SWIS2050(2R) | C | GSP annual growth fraction (1/year) |
| SWIS2050(2R) | C | GW/kW (GWh/kWh) |
| SWIS2050(2R) | A | Hour of the day (Hour) |
| SWIS2050(2R) | A | Hour of the year (Hour) |
| SWIS2050(2R) | F,A | Hourly BG in (MW) |
| SWIS2050(2R) | F,A | Hourly BG out (MW) |
| SWIS2050(2R) | F,A | Hourly CG in (MW) |
| SWIS2050(2R) | F,A | Hourly CG out (MW) |
| SWIS2050(2R) | A | Hourly coal emissions (tCO2e) |
| SWIS2050(2R) | A | Hourly demand balance (MW) |
| SWIS2050(2R) | F,A | Hourly demand met in (MW) |
| SWIS2050(2R) | F,A | Hourly demand met out (MW) |
| SWIS2050(2R) | A | Hourly gas CC emissions (tCO2e) |
| SWIS2050(2R) | A | Hourly gas CT emissions (tCO2e) |
| SWIS2050(2R) | F,A | Hourly GCC in (MW) |
| SWIS2050(2R) | F,A | Hourly GCC out (MW) |
| SWIS2050(2R) | F,A | Hourly GCT in (MW) |
| SWIS2050(2R) | F,A | Hourly GCT out (MW) |
| SWIS2050(2R) | F,A | Hourly LSS in (MW) |
| SWIS2050(2R) | F,A | Hourly LSS out (MW) |
| SWIS2050(2R) | A | Hourly network generation plus storage discharges (MW) |
| SWIS2050(2R) | F,A | Hourly NL in (MW) |
| SWIS2050(2R) | F,A | Hourly NL out (MW) |
| SWIS2050(2R) | F,A | Hourly NS losses in (MW) |
| SWIS2050(2R) | F,A | Hourly NS losses out (MW) |
| SWIS2050(2R) | F,A | Hourly NTL in (MW) |
| SWIS2050(2R) | F,A | Hourly NTL out (MW) |
| SWIS2050(2R) | F,A | Hourly TNU in (MW) |
| SWIS2050(2R) | F,A | Hourly TNU out (MW) |
| SWIS2050(2R) | F,A | Hourly WaveG in (MW) |
| SWIS2050(2R) | F,A | Hourly WaveG out (MW) |
| SWIS2050(2R) | F,A | Hourly WG in (MW) |
| SWIS2050(2R) | F,A | Hourly WG out (MW) |
| SWIS2050(2R) | C | Hours per year (Hours/year) |
| SWIS2050(2R) | A | Indicated comm PV array (kW/system) |
| SWIS2050(2R) | A | Indicated resi PV array (kW/system) |
| SWIS2050(2R) | A | Industry energy demand (GWh/year) |
| SWIS2050(2R) | A | Initial annual network thermal load (MW*Hour) |
| SWIS2050(2R) | LI,C | Initial coal capacity (MW) |
| SWIS2050(2R) | LI,C | Initial coal fuel cost ($/GJ) |
| SWIS2050(2R) | LI,A | Initial comm FIT fraction (Dmnl) |
| SWIS2050(2R) | C | Initial commercial FIT ($/kWh) |
| SWIS2050(2R) | C | Initial commercial tariff ($/kWh) |
| SWIS2050(2R) | LI,C | Initial energy intensity (GWh/$m/year) |
| SWIS2050(2R) | LI,C | Initial gas CC capacity (MW) |
| SWIS2050(2R) | LI,C | Initial gas CT capacity (MW) |
| SWIS2050(2R) | LI,C | Initial gas fuel cost ($/GJ) |
| SWIS2050(2R) | C | Initial large customer tariff ($/kWh) |
| SWIS2050(2R) | C | Initial network unit cost ($/(MW*Hour)) |
| SWIS2050(2R) | C | Initial residential FIT ($/kWh) |
| SWIS2050(2R) | LI,A | Initial residential FIT fraction (Dmnl) |
| SWIS2050(2R) | C | Initial residential tariff ($/kWh) |
| SWIS2050(2R) | A | Initial thermal plant (MW) |
| SWIS2050(2R) | C | kW/MW (kW/MW) |
| SWIS2050(2R) | C | kWh (kWh/(kW*Hour)) |
| SWIS2050(2R) | C | kWh/MWh (kWh/(MW*Hour)) |
| SWIS2050(2R) | A | Large customer hourly demand (kW/customer) |
| SWIS2050(2R) | A | Large customer tariff ($/kWh) |
| SWIS2050(2R) | L | Large customers (Customers) |
| SWIS2050(2R) | F,A | LS solar additions (MW/Hour) |
| SWIS2050(2R) | A | LS solar capex ($/MW) |
| SWIS2050(2R) | C | LS solar CF (Dmnl) |
| SWIS2050(2R) | C | LS solar FOM ($/MW/year) |
| SWIS2050(2R) | A | LS solar hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | LS solar hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | LS solar hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | LS solar life (Years) |
| SWIS2050(2R) | A,T | LS solar lookup (Dmnl) |
| SWIS2050(2R) | C | LS solar PMT (1/year) |
| SWIS2050(2R) | L | LS Solar PV capacity (MW) |
| SWIS2050(2R) | A | LS solar PV generation (MW) |
| SWIS2050(2R) | F,A | LS solar retirements (MW/Hour) |
| SWIS2050(2R) | C | LS solar VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | LSS replacements (MW/Hour) |
| SWIS2050(2R) | C | LSS share (Dmnl) |
| SWIS2050(2R) | A | LSS share by cost (Dmnl) |
| SWIS2050(2R) | A | Max coal generation capacity (MW) |
| SWIS2050(2R) | A | Max comm PV systems (Systems) |
| SWIS2050(2R) | A | Max gas CC generation capacity (MW) |
| SWIS2050(2R) | A | Max resi PV systems (Systems) |
| SWIS2050(2R) | C | Maximum comm PV generation (Dmnl) |
| SWIS2050(2R) | A | Maximum network storage (Hour*MW) |
| SWIS2050(2R) | C | Maximum resi PV penetration (Dmnl) |
| SWIS2050(2R) | A | Min coal generation capacity (MW) |
| SWIS2050(2R) | A | Min gas CC generation capacity (MW) |
| SWIS2050(2R) | C | Minimum private storage discharge (Dmnl) |
| SWIS2050(2R) | A | Month of the year (Dmnl) |
| SWIS2050(2R) | C | MW/GW (MW*Hour/GWh) |
| SWIS2050(2R) | A | Negative network load (MW) |
| SWIS2050(2R) | A | Net annual network demand (Hour*MW) |
| SWIS2050(2R) | A | Net comm PV production (kW) |
| SWIS2050(2R) | A | Net hourly network demand (MW) |
| SWIS2050(2R) | A | Net private storage hours (Hour) |
| SWIS2050(2R) | A | Net resi PV production (kW) |
| SWIS2050(2R) | F,A | Net residential customer growth (Customers/Hour) |
| SWIS2050(2R) | A | Network battery storage capacity (MW*Hour) |
| SWIS2050(2R) | C | Network generation storage ratio (Dmnl) |
| SWIS2050(2R) | A | Network generation tariff multiplier (Dmnl) |
| SWIS2050(2R) | A | Network load from comm solar premises (kW) |
| SWIS2050(2R) | A | Network load from comm storage premises (kW) |
| SWIS2050(2R) | A | Network load from resi solar only home (kW) |
| SWIS2050(2R) | A | Network load from resi storage home (kW) |
| SWIS2050(2R) | A | Network renewables generation (MW) |
| SWIS2050(2R) | L | Network storage capacity (MW*Hour) |
| SWIS2050(2R) | F,A | Network storage charge (MW) |
| SWIS2050(2R) | F,A | Network storage discharge (MW) |
| SWIS2050(2R) | C | Network storage loss fraction (Dmnl) |
| SWIS2050(2R) | F,A | Network storage losses (MW) |
| SWIS2050(2R) | C | Network storage minimum discharge level (Dmnl) |
| SWIS2050(2R) | L | Network storage SoC (MW*Hour) |
| SWIS2050(2R) | C | Network storage switch (Dmnl) |
| SWIS2050(2R) | A | Network thermal load (MW) |
| SWIS2050(2R) | A | Network unit cost ($/(MW*Hour)) |
| SWIS2050(2R) | A | Nominal annual thermal generation capacity (MW*Hour/year) |
| SWIS2050(2R) | A | Nominal coal annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Coal CF (Dmnl) |
| SWIS2050(2R) | C | Nominal coal life (Years) |
| SWIS2050(2R) | A | Nominal gas CC annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Gas CC CF (Dmnl) |
| SWIS2050(2R) | C | Nominal gas CC life (Years) |
| SWIS2050(2R) | A | Nominal gas CT annual generation capacity (MW*Hour/year) |
| SWIS2050(2R) | C | Nominal Gas CT CF (Dmnl) |
| SWIS2050(2R) | C | Nominal gas CT life (Years) |
| SWIS2050(2R) | A | Non-solar comm premises (Dmnl) |
| SWIS2050(2R) | A | Non-solar homes (Dmnl) |
| SWIS2050(2R) | A | Normal annual comm electricity charges ($/(year*customer)) |
| SWIS2050(2R) | A | Normal annual large cust electricity charges ($/(year*customer)) |
| SWIS2050(2R) | A | Normal annual resi electricity charges ($/(year*customer)) |
| SWIS2050(2R) | F,A | NS discharge in (MW) |
| SWIS2050(2R) | F,A | NS discharge out (MW) |
| SWIS2050(2R) | C | Onshore wind capex 2050 ($/MW) |
| SWIS2050(2R) | A | Optimum comm storage hours (Hours) |
| SWIS2050(2R) | A | Optimum resi storage hours (Hours) |
| SWIS2050(2R) | C | PHES - battery split (Dmnl) |
| SWIS2050(2R) | A | PHES capacity (MW*Hour) |
| SWIS2050(2R) | C | PHES capex per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | PHES FOM ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | A | PHES hourly capex ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | PHES life (year) |
| SWIS2050(2R) | C | PHES opex % (1/year) |
| SWIS2050(2R) | C | PHES PMT (1/year) |
| SWIS2050(2R) | A | Positive network load (MW) |
| SWIS2050(2R) | C | Private PV capacity factor (Dmnl) |
| SWIS2050(2R) | A | Renewables adjustments (Dmnl) |
| SWIS2050(2R) | A | Renewables total share (1) |
| SWIS2050(2R) | A | Required thermal network additions (Dmnl) |
| SWIS2050(2R) | A,T | Resi demand lookup (Dmnl) |
| SWIS2050(2R) | C | Resi FIT adjustment time (Hours) |
| SWIS2050(2R) | A | Resi PV additions (Dmnl) |
| SWIS2050(2R) | A | Resi PV capex ($/system) |
| SWIS2050(2R) | A | Resi PV import fraction (Dmnl) |
| SWIS2050(2R) | C | Resi PV purchase adj time (year) |
| SWIS2050(2R) | C | Resi solar adjustment time (Hours) |
| SWIS2050(2R) | A | Resi solar exports (kW) |
| SWIS2050(2R) | A | Resi solar imports (kW) |
| SWIS2050(2R) | A,T | Resi solar lookup (Dmnl) |
| SWIS2050(2R) | C | Resi solar switch (Dmnl) |
| SWIS2050(2R) | A | Resi storage capacity per system (kW*Hour) |
| SWIS2050(2R) | A | Resi storage capex ($/customer) |
| SWIS2050(2R) | F,A | Resi storage charge (kW) |
| SWIS2050(2R) | A | Resi storage demand (kW) |
| SWIS2050(2R) | F,A | Resi storage discharge (kW) |
| SWIS2050(2R) | A | Resi storage export fraction (Dmnl) |
| SWIS2050(2R) | A | Resi storage exports (kW) |
| SWIS2050(2R) | A | Resi storage import fraction (Dmnl) |
| SWIS2050(2R) | A | Resi storage imports (kW) |
| SWIS2050(2R) | F,A | Resi storage losses (kW) |
| SWIS2050(2R) | A | Resi storage penetration (Dmnl) |
| SWIS2050(2R) | L | Resi storage per system (kW*Hour) |
| SWIS2050(2R) | C | Resi storage switch (Dmnl) |
| SWIS2050(2R) | L | Residential customers (Customers) |
| SWIS2050(2R) | A | Residential demand met by solar PV (kW) |
| SWIS2050(2R) | A | Residential FIT ($/kWh) |
| SWIS2050(2R) | L | Residential FIT fraction (Dmnl) |
| SWIS2050(2R) | A | Residential hourly demand (kW) |
| SWIS2050(2R) | A | Residential PV capacity (MW) |
| SWIS2050(2R) | A | Residential PV payback (Years) |
| SWIS2050(2R) | A | Residential PV penetration (Dmnl) |
| SWIS2050(2R) | L | Residential PV systems (Systems) |
| SWIS2050(2R) | A | Residential SCM (Dmnl) |
| SWIS2050(2R) | A | Residential solar generation (kW) |
| SWIS2050(2R) | A | Residential storage capacity (Hour*MW) |
| SWIS2050(2R) | A | Residential storage payback (Years) |
| SWIS2050(2R) | A | Residential storage penetration (Dmnl) |
| SWIS2050(2R) | A | Residential storage savings ($/(customer*year)) |
| SWIS2050(2R) | L | Residential storage systems (Systems) |
| SWIS2050(2R) | A | Residential tariff ($/kWh) |
| SWIS2050(2R) | A | Retired coal generation (MW/Hour) |
| SWIS2050(2R) | A | Retired gas CC generation (MW/Hour) |
| SWIS2050(2R) | A | Retired gas CT generation (MW/Hour) |
| SWIS2050(2R) | C | Solar capacity adj time (year) |
| SWIS2050(2R) | A | Solar only comm premises (Dmnl) |
| SWIS2050(2R) | A | Solar only homes (Dmnl) |
| SWIS2050(2R) | C | start year (year) |
| SWIS2050(2R) | A | Sum of A-D (Dmnl) |
| SWIS2050(2R) | F,A | Swap (MW) |
| SWIS2050(2R) | C | System/customer (system/customer) |
| SWIS2050(2R) | C | Tariff multiplier switch (Dmnl) |
| SWIS2050(2R) | C | Thermal network additions switch (Dmnl) |
| SWIS2050(2R) | A | Thermal network annual load / capacity (Dmnl) |
| SWIS2050(2R) | A | Thermal network undergeneration (MW) |
| SWIS2050(2R) | C | Thermal plant construction time (Years) |
| SWIS2050(2R) | A,T | time lookup (Dmnl) |
| SWIS2050(2R) | A | Total annual demand (GWh/year) |
| SWIS2050(2R) | A | Total annual demand in MWh (MW*Hour) |
| SWIS2050(2R) | A | Total annual system generation (MW*Hour) |
| SWIS2050(2R) | A | Total commercial network load (MW) |
| SWIS2050(2R) | A | Total hourly demand (MW) |
| SWIS2050(2R) | A | Total hourly demand - comm customers (kW) |
| SWIS2050(2R) | A | Total hourly demand - large customers (kW) |
| SWIS2050(2R) | A | Total hourly demand - resi customers (kW) |
| SWIS2050(2R) | A | Total hourly demand met by customers (MW) |
| SWIS2050(2R) | A | Total network load (MW) |
| SWIS2050(2R) | A | Total network load from comm solar premises (kW) |
| SWIS2050(2R) | A | Total network load from comm storage premises (kW) |
| SWIS2050(2R) | A | Total network load from non-solar comm premises (kW) |
| SWIS2050(2R) | A | Total network load from non-solar homes (kW) |
| SWIS2050(2R) | A | Total network load from solar only homes (kW) |
| SWIS2050(2R) | A | Total network load from storage home (kW) |
| SWIS2050(2R) | A | Total network thermal generation (MW) |
| SWIS2050(2R) | A | Total private PV capacity (MW) |
| SWIS2050(2R) | A | Total private PV generation (MW*Hour/year) |
| SWIS2050(2R) | A | Total private storage capacity (Hour*MW) |
| SWIS2050(2R) | A | Total residential network load (MW) |
| SWIS2050(2R) | A | Total retired thermal generation (MW/Hour) |
| SWIS2050(2R) | A | Unit cost of comm battery storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of commercial solar PV ($/kW) |
| SWIS2050(2R) | L | Unit cost of residential solar PV ($/kW) |
| SWIS2050(2R) | L | Unit cost of residential storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of utility scale battery storage ($/kWh) |
| SWIS2050(2R) | A | Unit cost of utility scale solar PV ($/kW) |
| SWIS2050(2R) | A | USBS FOM ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | USBS opex ($/(MW*Hour)/year) |
| SWIS2050(2R) | C | Utility battery storage fraction (Dmnl) |
| SWIS2050(2R) | A | Utility scale battery storage capex per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | Utility scale battery storage PMT (1/year) |
| SWIS2050(2R) | A | Utility scale hourly capex ($/(MW*Hour*Hour)) |
| SWIS2050(2R) | C | Utility solar PV fraction (Dmnl) |
| SWIS2050(2R) | F,A | Wave additions (MW/Hour) |
| SWIS2050(2R) | L | Wave capacity (MW) |
| SWIS2050(2R) | C | Wave capacity adj time (Years) |
| SWIS2050(2R) | L | Wave capex ($/MW) |
| SWIS2050(2R) | C | Wave capex 2050 ($/MW) |
| SWIS2050(2R) | C | Wave capex adj time (Years) |
| SWIS2050(2R) | C | Wave CF (Dmnl) |
| SWIS2050(2R) | C | Wave FOM ($/MW/year) |
| SWIS2050(2R) | A | Wave generation (MW) |
| SWIS2050(2R) | A | Wave hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Wave hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Wave hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Wave life (Years) |
| SWIS2050(2R) | A,T | Wave lookup (Dmnl) |
| SWIS2050(2R) | C | Wave PMT (1/year) |
| SWIS2050(2R) | A | Wave replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Wave retirements (MW/Hour) |
| SWIS2050(2R) | C | Wave share (Dmnl) |
| SWIS2050(2R) | A | Wave share by cost (Dmnl) |
| SWIS2050(2R) | C | Wave VOM ($/(MW*Hour)) |
| SWIS2050(2R) | F,A | Wind additions (MW/Hour) |
| SWIS2050(2R) | L | Wind capacity (MW) |
| SWIS2050(2R) | C | Wind capacity adj time (Years) |
| SWIS2050(2R) | L | Wind capex ($/MW) |
| SWIS2050(2R) | C | Wind capex adj time (Years) |
| SWIS2050(2R) | C | Wind CF (Dmnl) |
| SWIS2050(2R) | C | Wind FOM ($/(MW*year)) |
| SWIS2050(2R) | A | Wind generation (MW) |
| SWIS2050(2R) | A | Wind hourly capex ($/MW/Hour) |
| SWIS2050(2R) | A | Wind hourly costs per MWh ($/(MW*Hour)) |
| SWIS2050(2R) | A | Wind hourly operating costs ($/Hour) |
| SWIS2050(2R) | C | Wind life (Years) |
| SWIS2050(2R) | A,T | Wind lookup (Dmnl) |
| SWIS2050(2R) | C | Wind PMT (1/year) |
| SWIS2050(2R) | A | Wind replacements (MW/Hour) |
| SWIS2050(2R) | F,A | Wind retirements (MW/Hour) |
| SWIS2050(2R) | C | Wind share (Dmnl) |
| SWIS2050(2R) | A | Wind share by cost (Dmnl) |
| SWIS2050(2R) | C | Wind VOM ($/(MW*Hour)) |
| SWIS2050(2R) | A | Year 0 (Dmnl) |
| SWIS2050(2R) | A | Year label (year ) |
| SWIS2050(2R) | C | years per hour (Years/Hour) |
| SWIS2050(2R) | C | Comm FIT adjustment time (Hours) | LHS Units: (Hour) RHS Units: (Dmnl) Complete RHS Units: ( constant * constant ) |
| SWIS2050(2R) | C | Resi FIT adjustment time (Hours) | LHS Units: (Hour) RHS Units: (Dmnl) Complete RHS Units: ( constant * constant ) |
| SWIS2050(2R) | C | Resi solar adjustment time (Hours) | LHS Units: (Hour) RHS Units: (Dmnl) Complete RHS Units: ( constant * constant ) |
| SWIS2050(2R) | C | USBS opex ($/(MW*Hour)/year) | LHS Units: ($/MW*Hour*Year) RHS Units: (Dmnl) Complete RHS Units: ( constant * constant ) |
| SWIS2050(2R) | A | Year label (year ) | LHS Units: (Year) RHS Units: Improper units for function argument 1 < (Year) > Complete RHS Units: TIMEBASE ( Year , Years/Hour ) |
| $ | Basic | |
| $m | Basic | |
| 1/Hour | Basic | |
| 1/Year | Basic | [1/year] |
| Customer | Basic | [customer, Customers] |
| Dmnl | Basic | [1] |
| Hour | Basic | [Hours] |
| kW | Basic | |
| MW | Basic | |
| System | Basic | [system, Systems] |
| tCO2e | Basic | |
| Year | Basic | [year, Years] |
| $/Customer | Combined | [$/customer] |
| $/Customer*Year | Combined | [$/(customer*year), $/customer/year] |
| $/GJ | Combined | |
| $/GJ*Hour | Combined | [$/GJ/Hour] |
| $/Hour | Combined | |
| $/Hour*GJ | Combined | [$/(Hour*GJ)] |
| $/Hour*kW | Combined | [$/(Hour*kW)] |
| $/kW | Combined | |
| $/kWh | Combined | |
| $/kWh*Hour | Combined | [$/kWh/Hour] |
| $/MW | Combined | |
| $/MW*Hour | Combined | [$/(MW*Hour), $/MW/Hour] |
| $/MW*Hour*Hour | Combined | [$/(MW*Hour*Hour)] |
| $/MW*Hour*Year | Combined | [$/(MW*Hour)/year] |
| $/MW*Year | Combined | [$/(MW*year), $/MW/year] |
| $/System | Combined | [$/system] |
| $/Year | Combined | [$/year] |
| $/Year*Customer | Combined | [$/(year*customer)] |
| $m/Hour | Combined | |
| Customer/Hour | Combined | [Customers/Hour] |
| GJ/MW*Hour | Combined | [GJ/(MW*Hour)] |
| GWh/$m*Year | Combined | [GWh/$m/year] |
| GWh/$m*Year*Hour | Combined | [GWh/$m/year/Hour] |
| GWh/Customer*Year | Combined | [GWh/customer/year] |
| GWh/kWh | Combined | |
| GWh/Year | Combined | [GWh/year] |
| GWh/Year*$m | Combined | [GWh/(year*$m)] |
| GWh/Year*Customer | Combined | [GWh/(year*customer)] |
| Hour*kW | Combined | |
| Hour*MW | Combined | |
| Hour*tCO2e | Combined | |
| Hour/Year | Combined | [Hours/year] |
| kW*Hour | Combined | [kW*Hours] |
| kW/Customer | Combined | [kW/customer] |
| kW/MW | Combined | |
| kW/System | Combined | [kW/system] |
| kW/System*Hour | Combined | [kW/system/Hour] |
| kWh/Customer*Year | Combined | [kWh/(customer*year), kWh/customer/year] |
| kWh/Hour*Customer | Combined | [kWh/(Hour*customer)] |
| kWh/kW*Hour | Combined | [kWh/(kW*Hour)] |
| kWh/MW*Hour | Combined | [kWh/(MW*Hour)] |
| kWh/Year*Customer*Hour | Combined | [kWh/(year*customer)/Hour] |
| MW*Hour | Combined | [MW* Hour, MW*Hours] |
| MW*Hour/GWh | Combined | |
| MW*Hour/Year | Combined | [MW*Hour/year] |
| MW/Hour | Combined | |
| System/Customer | Combined | [system/customer] |
| System/Hour | Combined | [Systems/Hour] |
| tCO2e*Hour | Combined | |
| tCO2e/MW | Combined | [tCO2e/(MW)] |
| Year/Hour | Combined | [Years/Hour] |
| SWIS2050(2R) | A | Network thermal load (MW) | 13,312 (81.0%) | 4,693 [15,30] | 4,731 [14,30] | 0.99 | 3,888 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network generation tariff multiplier (Dmnl) | 13,004 (79.2%) | 5,260 [20,30] | 5,324 [20,30] | 0.99 | 2,420 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network unit cost ($/(MW*Hour)) | 13,004 (79.2%) | 5,260 [20,30] | 5,324 [20,30] | 0.99 | 2,420 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load (MW) | 12,036 (73.3%) | 4,788 [20,30] | 4,828 [20,30] | 0.99 | 2,420 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Network storage discharge (MW) | 11,203 (68.2%) | 3,867 [ 5,30] | 3,923 [ 2,30] | 0.99 | 3,413 [15,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Network storage SoC (MW*Hour) | 9,349 (56.9%) | 3,290 [ 2,30] | 3,355 [ 2,30] | 0.98 | 2,704 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Network storage charge (MW) | 8,802 (53.6%) | 3,093 [ 2,30] | 3,145 [ 3,30] | 0.98 | 2,564 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network generation (MW*Hour) | 7,826 (47.6%) | 2,523 [10,30] | 2,586 [14,30] | 0.98 | 2,717 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal generation (MW) | 7,410 (45.1%) | 2,609 [15,30] | 2,635 [14,30] | 0.99 | 2,166 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC generation (MW) | 7,410 (45.1%) | 2,609 [15,30] | 2,635 [14,30] | 0.99 | 2,166 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network thermal generation (MW*Hour) | 7,194 (43.8%) | 2,496 [15,30] | 2,560 [14,30] | 0.97 | 2,138 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network generation and storage costs ($) | 7,114 (43.3%) | 2,920 [21,30] | 2,934 [21,30] | 1.00 | 1,260 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Negative network load (MW) | 7,080 (43.1%) | 2,533 [18,30] | 2,547 [17,30] | 0.99 | 2,000 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Positive network load (MW) | 6,864 (41.8%) | 2,379 [15,30] | 2,395 [14,30] | 0.99 | 2,090 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT generation (MW) | 6,857 (41.7%) | 2,381 [15,30] | 2,408 [ 7,30] | 0.99 | 2,068 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial tariff ($/kWh) | 6,502 (39.6%) | 2,630 [20,30] | 2,662 [20,30] | 0.99 | 1,210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential tariff ($/kWh) | 6,502 (39.6%) | 2,630 [20,30] | 2,662 [20,30] | 0.99 | 1,210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cum CT generation (MW* Hour) | 6,103 (37.2%) | 2,295 [15,30] | 2,328 [ 2,30] | 0.99 | 1,480 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CT generation (MW*Hour) | 6,102 (37.1%) | 2,295 [15,30] | 2,327 [14,30] | 0.99 | 1,480 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly GCT in (MW) | 6,102 (37.1%) | 2,295 [15,30] | 2,327 [14,30] | 0.99 | 1,480 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total commercial network load (MW) | 6,018 (36.6%) | 2,394 [20,30] | 2,414 [20,30] | 0.99 | 1,210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total residential network load (MW) | 6,018 (36.6%) | 2,394 [20,30] | 2,414 [20,30] | 0.99 | 1,210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual comm PV savings ($/customer/year) | 5,714 (34.8%) | 2,256 [ 8,30] | 2,275 [ 9,30] | 0.99 | 1,183 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual resi PV savings ($/customer/year) | 5,714 (34.8%) | 2,256 [ 8,30] | 2,275 [ 9,30] | 0.99 | 1,183 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Network storage capacity (MW*Hour) | 5,541 (33.7%) | 2,020 [ 2,30] | 2,061 [ 2,30] | 0.98 | 1,460 [19,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in network storage capacity (MW) | 5,540 (33.7%) | 2,020 [ 2,30] | 2,060 [ 3,30] | 0.98 | 1,460 [19,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network generation costs ($) | 5,478 (33.3%) | 2,316 [22,30] | 2,306 [22,30] | 1.00 | 856 [26,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual thermal network costs ($) | 5,390 (32.8%) | 2,304 [22,30] | 2,296 [22,30] | 1.00 | 790 [26,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial PV payback (Years) | 4,924 (30.0%) | 1,868 [ 8,30] | 1,900 [ 5,30] | 0.98 | 1,156 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential PV payback (Years) | 4,924 (30.0%) | 1,868 [ 8,30] | 1,900 [ 5,30] | 0.98 | 1,156 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Network storage losses (MW) | 3,821 (23.3%) | 1,369 [18,30] | 1,375 [ 3,30] | 1.00 | 1,077 [18,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from comm storage premises (kW) | 3,581 (21.8%) | 1,374 [20,30] | 1,391 [20,30] | 0.99 | 816 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from storage home (kW) | 3,581 (21.8%) | 1,374 [20,30] | 1,391 [20,30] | 0.99 | 816 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Gas CT capacity (MW) | 3,300 (20.1%) | 685 [ 6,30] | 689 [ 2,30] | 0.99 | 1,926 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CT additions (MW/Hour) | 3,299 (20.1%) | 685 [ 6,30] | 688 [ 2,30] | 1.00 | 1,926 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Ave comm PV array (kW/system) | 3,172 (19.3%) | 1,022 [ 8,30] | 1,045 [ 2,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Ave resi PV array (kW/system) | 3,172 (19.3%) | 1,022 [ 8,30] | 1,045 [ 2,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in ave comm PV array (kW/system/Hour) | 3,172 (19.3%) | 1,022 [ 8,30] | 1,045 [ 2,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in ave resi PV array (kW/system/Hour) | 3,172 (19.3%) | 1,022 [ 8,30] | 1,045 [ 2,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Indicated comm PV array (kW/system) | 3,171 (19.3%) | 1,022 [ 8,30] | 1,044 [ 5,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Indicated resi PV array (kW/system) | 3,171 (19.3%) | 1,022 [ 8,30] | 1,044 [ 5,30] | 0.98 | 1,105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Addtl Gas CT reqd (MW) | 3,045 (18.5%) | 618 [15,30] | 618 [ 7,30] | 1.00 | 1,809 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hourly demand balance (MW) | 3,045 (18.5%) | 618 [15,30] | 618 [ 7,30] | 1.00 | 1,809 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cum gas CC generation (MW* Hour) | 2,893 (17.6%) | 1,064 [15,30] | 1,085 [ 2,30] | 0.98 | 744 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CC generation (MW*Hour) | 2,892 (17.6%) | 1,064 [15,30] | 1,084 [14,30] | 0.98 | 744 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly GCC in (MW) | 2,892 (17.6%) | 1,064 [15,30] | 1,084 [14,30] | 0.98 | 744 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hourly network generation plus storage discharges (MW) | 2,875 (17.5%) | 558 [15,30] | 564 [ 7,30] | 0.99 | 1,753 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial FIT ($/kWh) | 2,829 (17.2%) | 1,127 [21,30] | 1,195 [21,30] | 0.94 | 507 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential FIT ($/kWh) | 2,829 (17.2%) | 1,127 [21,30] | 1,195 [21,30] | 0.94 | 507 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in comm storage systems (Systems/Hour) | 2,814 (17.1%) | 1,365 [20,30] | 1,380 [ 2,30] | 0.99 | 69 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in resi storage systems (Systems/Hour) | 2,814 (17.1%) | 1,365 [20,30] | 1,380 [ 2,30] | 0.99 | 69 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Commercial storage systems (Systems) | 2,814 (17.1%) | 1,365 [20,30] | 1,380 [ 2,30] | 0.99 | 69 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Residential storage systems (Systems) | 2,814 (17.1%) | 1,365 [20,30] | 1,380 [ 2,30] | 0.99 | 69 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Required thermal network additions (Dmnl) | 2,635 (16.0%) | 545 [ 6,30] | 557 [14,30] | 0.98 | 1,533 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Thermal network annual load / capacity (Dmnl) | 2,635 (16.0%) | 545 [ 6,30] | 557 [14,30] | 0.98 | 1,533 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network renewables generation (MW) | 2,580 (15.7%) | 274 [15,30] | 266 [14,30] | 1.03 | 2,040 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Swap (MW) | 2,423 (14.8%) | 894 [ 5,30] | 896 [ 2,30] | 1.00 | 633 [20,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CC costs ($) | 2,190 (13.3%) | 934 [22,30] | 930 [22,30] | 1.00 | 326 [26,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage penetration (Dmnl) | 2,182 (13.3%) | 1,059 [20,30] | 1,069 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial storage payback (Years) | 2,182 (13.3%) | 1,059 [20,30] | 1,069 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage penetration (Dmnl) | 2,182 (13.3%) | 1,059 [20,30] | 1,069 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential storage payback (Years) | 2,182 (13.3%) | 1,059 [20,30] | 1,069 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual demand balance ratio (Dmnl) | 2,168 (13.2%) | 213 [10,30] | 224 [14,30] | 0.95 | 1,731 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Renewables adjustments (Dmnl) | 2,168 (13.2%) | 213 [10,30] | 224 [14,30] | 0.95 | 1,731 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from comm solar premises (kW) | 1,997 (12.2%) | 814 [20,30] | 807 [21,30] | 1.01 | 376 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from solar only homes (kW) | 1,997 (12.2%) | 814 [20,30] | 807 [21,30] | 1.01 | 376 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network load from comm storage premises (kW) | 1,991 (12.1%) | 607 [23,30] | 613 [23,30] | 0.99 | 771 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network load from resi storage home (kW) | 1,991 (12.1%) | 607 [23,30] | 613 [23,30] | 0.99 | 771 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CT costs ($) | 1,914 (11.7%) | 824 [22,30] | 820 [22,30] | 1.00 | 270 [26,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network thermal generation (MW) | 1,889 (11.5%) | 324 [15,30] | 314 [ 7,30] | 1.03 | 1,251 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total retired thermal generation (MW/Hour) | 1,884 (11.5%) | 187 [15,30] | 179 [14,30] | 1.04 | 1,518 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Addtional comm storage savings ($/(customer*year)) | 1,792 (10.9%) | 864 [20,30] | 874 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Addtional resi storage savings ($/(customer*year)) | 1,792 (10.9%) | 864 [20,30] | 874 [20,30] | 0.99 | 54 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in commercial PV systems (Systems/Hour) | 1,754 (10.7%) | 846 [20,30] | 857 [ 2,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in resi solar PV systems (Systems/Hour) | 1,754 (10.7%) | 846 [20,30] | 857 [ 2,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Commercial PV systems (Systems) | 1,754 (10.7%) | 846 [20,30] | 857 [ 2,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Residential PV systems (Systems) | 1,754 (10.7%) | 846 [20,30] | 857 [ 2,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm PV additions (Dmnl) | 1,753 (10.7%) | 846 [20,30] | 856 [20,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi PV additions (Dmnl) | 1,753 (10.7%) | 846 [20,30] | 856 [20,30] | 0.99 | 51 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Maximum network storage (Hour*MW) | 1,720 (10.5%) | 559 [21,30] | 597 [20,30] | 0.94 | 564 [20,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative network thermal load (MW*Hours) | 1,669 (10.2%) | 422 [18,30] | 434 [ 2,30] | 0.97 | 813 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network thermal load (MW*Hour) | 1,668 (10.2%) | 422 [18,30] | 433 [17,30] | 0.97 | 813 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NTL in (MW) | 1,668 (10.2%) | 422 [18,30] | 433 [17,30] | 0.97 | 813 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Solar only comm premises (Dmnl) | 1,663 (10.1%) | 814 [20,30] | 807 [21,30] | 1.01 | 42 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Solar only homes (Dmnl) | 1,663 (10.1%) | 814 [20,30] | 807 [21,30] | 1.01 | 42 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network storage costs ($) | 1,636 (10.0%) | 604 [21,30] | 628 [21,30] | 0.96 | 404 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cum coal generation (MW*Hour) | 1,609 (9.8%) | 589 [15,30] | 596 [ 2,30] | 0.99 | 424 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual coal generation (MW*Hour) | 1,608 (9.8%) | 589 [15,30] | 595 [14,30] | 0.99 | 424 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly CG in (MW) | 1,608 (9.8%) | 589 [15,30] | 595 [14,30] | 0.99 | 424 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network renewables generation (MW*Hour) | 1,384 (8.4%) | 114 [10,30] | 127 [20,30] | 0.90 | 1,143 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Coal capacity (MW) | 1,373 (8.4%) | 275 [ 6,30] | 285 [ 2,30] | 0.96 | 813 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Coal additions (MW/Hour) | 1,372 (8.4%) | 275 [ 6,30] | 284 [ 2,30] | 0.97 | 813 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual coal costs ($) | 1,286 (7.8%) | 546 [22,30] | 546 [22,30] | 1.00 | 194 [26,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative gas CC operating hours (Hour) | 1,238 (7.5%) | 532 [23,30] | 530 [23,30] | 1.00 | 176 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC hourly costs per MWh ($/(MW*Hour)) | 1,238 (7.5%) | 532 [23,30] | 530 [23,30] | 1.00 | 176 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC operating CF (Dmnl) | 1,238 (7.5%) | 532 [23,30] | 530 [23,30] | 1.00 | 176 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CC operating hours (Dmnl) | 1,238 (7.5%) | 532 [23,30] | 530 [23,30] | 1.00 | 176 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage capacity per system (Hour*kW) | 1,226 (7.5%) | 607 [23,30] | 613 [23,30] | 0.99 | 6 [30,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage capacity per system (kW*Hour) | 1,226 (7.5%) | 607 [23,30] | 613 [23,30] | 0.99 | 6 [30,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Comm storage charge (kW) | 1,180 (7.2%) | 434 [ 3,30] | 442 [ 2,30] | 0.98 | 304 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Resi storage charge (kW) | 1,180 (7.2%) | 434 [ 3,30] | 442 [ 2,30] | 0.98 | 304 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Comm storage discharge (kW) | 1,179 (7.2%) | 435 [24,30] | 440 [ 2,30] | 0.99 | 304 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Resi storage discharge (kW) | 1,179 (7.2%) | 435 [24,30] | 440 [ 2,30] | 0.99 | 304 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial solar generation (kW) | 1,099 (6.7%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,099 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Net comm PV production (kW) | 1,099 (6.7%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,099 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Net resi PV production (kW) | 1,099 (6.7%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,099 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential solar generation (kW) | 1,099 (6.7%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,099 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CT retirements (MW/Hour) | 1,093 (6.7%) | 99 [15,30] | 94 [ 2,30] | 1.05 | 900 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Retired gas CT generation (MW/Hour) | 1,092 (6.6%) | 99 [15,30] | 93 [14,30] | 1.06 | 900 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage imports (kW) | 1,083 (6.6%) | 333 [24,30] | 345 [23,30] | 0.97 | 405 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage imports (kW) | 1,083 (6.6%) | 333 [24,30] | 345 [23,30] | 0.97 | 405 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial SCM (Dmnl) | 1,034 (6.3%) | 512 [ 8,30] | 522 [ 9,30] | 0.98 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential SCM (Dmnl) | 1,034 (6.3%) | 512 [ 8,30] | 522 [ 9,30] | 0.98 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Biogas capacity (MW) | 1,014 (6.2%) | 400 [10,30] | 404 [ 2,30] | 0.99 | 210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | LS Solar PV capacity (MW) | 1,014 (6.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Wave capacity (MW) | 1,014 (6.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Wind capacity (MW) | 1,014 (6.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas generation (MW) | 1,013 (6.2%) | 400 [10,30] | 403 [14,30] | 0.99 | 210 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Gas CC capacity (MW) | 1,013 (6.2%) | 203 [ 6,30] | 207 [ 2,30] | 0.98 | 603 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LS solar PV generation (MW) | 1,013 (6.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave generation (MW) | 1,013 (6.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind generation (MW) | 1,013 (6.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 1,013 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CC additions (MW/Hour) | 1,012 (6.2%) | 203 [ 6,30] | 206 [ 2,30] | 0.99 | 603 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial storage savings ($/(customer*year)) | 1,001 (6.1%) | 476 [21,30] | 498 [20,30] | 0.96 | 27 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential storage savings ($/(customer*year)) | 1,001 (6.1%) | 476 [21,30] | 498 [20,30] | 0.96 | 27 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual private PV generation (Hour*MW) | 968 (5.9%) | 472 [21,30] | 496 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total private PV generation (MW*Hour/year) | 968 (5.9%) | 472 [21,30] | 496 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Nominal annual thermal generation capacity (MW*Hour/year) | 967 (5.9%) | 123 [ 6,30] | 124 [14,30] | 0.99 | 720 [20,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Nominal gas CT annual generation capacity (MW*Hour/year) | 965 (5.9%) | 121 [ 6,30] | 124 [14,30] | 0.98 | 720 [20,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage exports (kW) | 908 (5.5%) | 274 [23,30] | 268 [24,30] | 1.02 | 366 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage exports (kW) | 908 (5.5%) | 274 [23,30] | 268 [24,30] | 1.02 | 366 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual PHES costs ($/year) | 818 (5.0%) | 302 [21,30] | 314 [21,30] | 0.96 | 202 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual USBS costs ($/year) | 818 (5.0%) | 302 [21,30] | 314 [21,30] | 0.96 | 202 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network battery storage capacity (MW*Hour) | 818 (5.0%) | 302 [21,30] | 314 [21,30] | 0.96 | 202 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | PHES capacity (MW*Hour) | 818 (5.0%) | 302 [21,30] | 314 [21,30] | 0.96 | 202 [25,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal hourly costs per MWh ($/(MW*Hour)) | 744 (4.5%) | 320 [23,30] | 320 [23,30] | 1.00 | 104 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal operating CF (Dmnl) | 744 (4.5%) | 320 [23,30] | 320 [23,30] | 1.00 | 104 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Coal operating hours (Dmnl) | 744 (4.5%) | 320 [23,30] | 320 [23,30] | 1.00 | 104 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative coal operating hours (Hour) | 744 (4.5%) | 320 [23,30] | 320 [23,30] | 1.00 | 104 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Comm storage per system (kW*Hours) | 702 (4.3%) | 262 [ 3,30] | 269 [ 2,30] | 0.97 | 171 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Resi storage per system (kW*Hour) | 702 (4.3%) | 262 [ 3,30] | 269 [ 2,30] | 0.97 | 171 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Optimum comm storage hours (Hours) | 594 (3.6%) | 292 [25,30] | 302 [25,30] | 0.97 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Optimum resi storage hours (Hours) | 594 (3.6%) | 292 [25,30] | 302 [25,30] | 0.97 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Excess comm generation (kW) | 569 (3.5%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 569 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Excess resi generation (kW) | 569 (3.5%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 569 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Biogas retirements (MW/Hour) | 543 (3.3%) | 213 [10,30] | 225 [ 2,30] | 0.95 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | LS solar retirements (MW/Hour) | 543 (3.3%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 542 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Wave retirements (MW/Hour) | 543 (3.3%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 542 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Wind retirements (MW/Hour) | 543 (3.3%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 542 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage demand (kW) | 530 (3.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 530 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage demand (kW) | 530 (3.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 530 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC hourly capex ($/MW/Hour) | 502 (3.1%) | 212 [24,30] | 218 [24,30] | 0.97 | 72 [28,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual commercial PV generation (MW*Hour/year) | 484 (2.9%) | 236 [21,30] | 248 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual residential PV generation (MW*Hour/year) | 484 (2.9%) | 236 [21,30] | 248 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial PV capacity (MW) | 484 (2.9%) | 236 [21,30] | 248 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential PV capacity (MW) | 484 (2.9%) | 236 [21,30] | 248 [22,30] | 0.95 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Biogas additions (MW/Hour) | 471 (2.9%) | 187 [15,30] | 179 [14,30] | 1.04 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas replacements (MW/Hour) | 471 (2.9%) | 187 [15,30] | 179 [14,30] | 1.04 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | LS solar additions (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LSS replacements (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Wave additions (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave replacements (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Wind additions (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind replacements (MW/Hour) | 471 (2.9%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 471 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Max coal generation capacity (MW) | 468 (2.8%) | 105 [15,30] | 111 [14,30] | 0.95 | 252 [22,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Min coal generation capacity (MW) | 468 (2.8%) | 105 [15,30] | 111 [14,30] | 0.95 | 252 [22,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Non-solar comm premises (Dmnl) | 440 (2.7%) | 206 [21,30] | 216 [20,30] | 0.95 | 18 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Non-solar homes (Dmnl) | 440 (2.7%) | 206 [21,30] | 216 [20,30] | 0.95 | 18 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from non-solar comm premises (kW) | 440 (2.7%) | 206 [21,30] | 216 [20,30] | 0.95 | 18 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total network load from non-solar homes (kW) | 440 (2.7%) | 206 [21,30] | 216 [20,30] | 0.95 | 18 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total hourly demand met by customers (MW) | 402 (2.4%) | 90 [24,30] | 82 [24,30] | 1.10 | 230 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Coal retirement (MW/Hour) | 397 (2.4%) | 44 [18,30] | 44 [ 2,30] | 1.00 | 309 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CC retirement (MW/Hour) | 397 (2.4%) | 44 [18,30] | 44 [ 2,30] | 1.00 | 309 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Retired coal generation (MW/Hour) | 396 (2.4%) | 44 [18,30] | 43 [17,30] | 1.02 | 309 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Retired gas CC generation (MW/Hour) | 396 (2.4%) | 44 [18,30] | 43 [17,30] | 1.02 | 309 [17,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage capex ($/customer) | 390 (2.4%) | 195 [25,30] | 195 [26,30] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage capex ($/customer) | 390 (2.4%) | 195 [25,30] | 195 [26,30] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative biogas generation (MW*Hour) | 369 (2.2%) | 126 [10,30] | 138 [ 2,30] | 0.91 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative LS solar generation (MW* Hour) | 369 (2.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative wave generation (MW* Hour) | 369 (2.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative wind generation (MW* Hour) | 369 (2.2%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual biogas generation (MW*Hour) | 368 (2.2%) | 126 [10,30] | 137 [20,30] | 0.92 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual LS solar generation (MW*Hour) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual wave generation (MW*Hour) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual wind generation (MW*Hour) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly BG in (MW) | 368 (2.2%) | 126 [10,30] | 137 [20,30] | 0.92 | 105 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly LSS in (MW) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly WaveG in (MW) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly WG in (MW) | 368 (2.2%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 368 [10,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network load from comm solar premises (kW) | 334 (2.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 334 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Network load from resi solar only home (kW) | 334 (2.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 334 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal hourly capex ($/(MW*Hour)) | 304 (1.9%) | 128 [24,30] | 132 [24,30] | 0.97 | 44 [28,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Max gas CC generation capacity (MW) | 288 (1.8%) | 69 [15,30] | 72 [14,30] | 0.96 | 147 [22,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Min gas CC generation capacity (MW) | 288 (1.8%) | 69 [15,30] | 72 [14,30] | 0.96 | 147 [22,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Demand met by network renewables (MW) | 270 (1.6%) | 60 [24,30] | 70 [14,30] | 0.86 | 140 [14,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative demand met by customers (MW*Hour) | 233 (1.4%) | 30 [27,30] | 29 [ 2,30] | 1.03 | 174 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual total demand met by customers (Hour*MW) | 232 (1.4%) | 30 [27,30] | 28 [27,30] | 1.07 | 174 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly demand met in (MW) | 232 (1.4%) | 30 [27,30] | 28 [27,30] | 1.07 | 174 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Net annual network demand (Hour*MW) | 232 (1.4%) | 30 [27,30] | 28 [27,30] | 1.07 | 174 [27,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Comm storage losses (kW) | 176 (1.1%) | 66 [ 3,30] | 71 [27,30] | 0.93 | 39 [28,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Resi storage losses (kW) | 176 (1.1%) | 66 [ 3,30] | 71 [27,30] | 0.93 | 39 [28,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Net hourly network demand (MW) | 170 (1.0%) | 60 [24,30] | 54 [24,30] | 1.11 | 56 [28,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm solar exports (kW) | 167 (1.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 167 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm solar imports (kW) | 167 (1.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 167 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi solar exports (kW) | 167 (1.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 167 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi solar imports (kW) | 167 (1.0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 167 [24,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage export fraction (Dmnl) | 105 (0.6%) | 50 [28,30] | 55 [27,30] | 0.91 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm storage import fraction (Dmnl) | 105 (0.6%) | 50 [28,30] | 55 [27,30] | 0.91 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage export fraction (Dmnl) | 105 (0.6%) | 50 [28,30] | 55 [27,30] | 0.91 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi storage import fraction (Dmnl) | 105 (0.6%) | 50 [28,30] | 55 [27,30] | 0.91 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network renewables costs ($) | 88 (0.5%) | 12 [29,30] | 10 [29,30] | 1.20 | 66 [29,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual biogas costs ($) | 22 (0.1%) | 12 [29,30] | 10 [29,30] | 1.20 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual LS solar costs ($) | 22 (0.1%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 22 [29,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual wave costs ($) | 22 (0.1%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 22 [29,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual wind costs ($) | 22 (0.1%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 22 [29,30] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual comm PV exports (kWh/(customer*year)) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual comm PV imports (kWh/customer/year) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual resi PV exports (kWh/(customer*year)) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual resi PV imports (kWh/customer/year) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Comm import fraction (Dmnl) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi PV import fraction (Dmnl) | 2 (0.0%) | 1 [ 8, 8] | 1 [ 9, 9] | 1.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual comm PV generation (kWh/(customer*year)) | 1 (0.0%) | 1 [ 8, 8] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual resi PV generation (kWh/(customer*year)) | 1 (0.0%) | 1 [ 8, 8] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Ave annual residential demand per customer (kWh/customer/year) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in coal fuel cost ($/GJ/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in comm FIT fraction (1/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in commercial customers (Customers/Hour) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in gas fuel cost ($/(Hour*GJ)) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in large customers (Customers/Hour) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in resi FIT fraction (1/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in unit cost of resi solar PV ($/(Hour*kW)) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in unit cost of resi storage ($/kWh/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in wave capex ($/(MW*Hour)) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chg in wind capex ($/MW/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chgs in demand per customer (kWh/(year*customer)/Hour) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chgs to energy intensity (GWh/$m/year/Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Chgs to GSP ($m/Hour) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Coal emission out (tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Coal fuel unit cost ($/GJ) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Commercial customers (Customers) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Commercial FIT fraction (Dmnl) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | CommPV capex ($/system) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 5, 5] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cum thermal network undergeneration (MW*Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative coal emissions (Hour*tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative demand met by network renewables (MW*Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative gas CC emissions (Hour*tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative gas CT emissions (Hour*tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative generation curtailed (MW*Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative network load (MW*Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative network storage discharge (Hour*MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative network storage losses (MW*Hour) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | DNR out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Energy intensity (GWh/$m/year) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CC emissions out (tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CT emissions out (tCO2e) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Gas fuel unit cost ($/GJ) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gen curtailed out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | GSP ($m) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly BG out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly CG out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly demand met out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly GCC out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly GCT out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly LSS out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NL out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NS losses out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NTL out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly TNU out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly WaveG out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly WG out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Large customers (Customers) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Net residential customer growth (Customers/Hour) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Nominal coal annual generation capacity (MW*Hour/year) | 1 (0.0%) | 1 [ 6, 6] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Nominal gas CC annual generation capacity (MW*Hour/year) | 1 (0.0%) | 1 [ 6, 6] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | NS discharge out (MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Resi PV capex ($/system) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 5, 5] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Residential customers (Customers) | 1 (0.0%) | 1 [ 2, 2] | 0 [ 0, 0] | Infinite | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Residential FIT fraction (Dmnl) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Unit cost of residential solar PV ($/kW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Unit cost of residential storage ($/kWh) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Wave capex ($/MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Wind capex ($/MW) | 1 (0.0%) | 0 [ 0, 0] | 1 [ 2, 2] | 0.00 | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 1 customer (customer) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 1 hour (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 1 system (system) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 1 system/ customer (system/customer) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 1 year (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2030 Biogas costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2030 LSS costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2030 Wave costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2030 Wind costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 Biogas costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 Biogas costs per MWh* ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 comm FIT fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 energy intensity (GWh/(year*$m)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 LSS costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 LSS costs per MWh* ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 residential FIT fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 unit cost of coal fuel ($/GJ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 unit cost of gas fuel ($/GJ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 unit cost of residential solar PV ($/kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 unit cost of residential storage ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 Wave costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 Wave costs per MWh* ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | 2050 Wind costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | 2050 Wind costs per MWh* ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | A-Ave/LSS (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Additive annual emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual coal emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual comm customer growth fraction (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual commercial customer demand (GWh/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual demand balance (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual demand met by network renewables (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual demand per comm customer (GWh/(year*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Annual demand per large customer (GWh/customer/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CC emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual gas CT emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual generation curtailed (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual large customer demand (GWh/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual large customer growth fraction (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network generation plus storage discharges (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network load (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network storage discharge (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual network storage losses (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual residential customer demand (GWh/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Annual residential demand growth fraction (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Annual residential growth fraction (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Annual thermal network undergeneration (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Ave hourly commercial demand (kWh/(Hour*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Ave hourly large customer demand (kWh/(Hour*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Ave hourly residential demand (kWh/(Hour*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Average 2050 renewables costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | B-Ave/Wind (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Battery storage loss fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas capacity adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas capex ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas hourly capex ($/MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas hourly costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas share (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Biogas share by cost (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Biogas VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | C-Ave/Wave (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Calendar year (year ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal % (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal available hours (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal capex ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal cost multiplier (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Coal emissions in (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal emissions per MWh (tCO2e/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal fuel cost adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal fuel costs ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal phase out period (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Coal retirement period (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal TE (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Coal VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Comm demand lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Comm FIT adjustment time (Hours) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Comm PV purchase adj time (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Comm solar lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Comm solar switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Comm storage switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial demand met by solar PV (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial hourly demand (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial PV penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Commercial solar PV fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial storage capacity (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Commercial storage fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Commercial storage penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Correction factor (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative emissions (tCO2e*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Cumulative gas CT operating hours (Hours) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | D-Ave/Bio (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C,F | Diesel additions (MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | L | Diesel capacity (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C,F | Diesel retirements (MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | DNR in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | EI adjustment period (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Energy intensity multiplier (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| .Control | C | FINAL TIME (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC available hours (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC capex ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CC emissions in (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC emissions per MWh (tCO2e/(MW)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC fuel costs ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC phase out period (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC retirement period (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC TE (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CC VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CC% (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas cost multiplier (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT % (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT capex ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT emission per MWh (tCO2e/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CT emissions in (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT fuel costs ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT hourly capex ($/MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT hourly costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT operating CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gas CT operating hours (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT phase out period (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Gas CT retirement period (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT TE (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas CT VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Gas fuel cost adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Gen curtailed in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Generation curtailed (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Generation fraction of tariff (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- comm array (kW/system) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- comm storage exports (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- comm storage imports (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- resi array (kW/system) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- resi storage exports (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- resi storage imports (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF- storage (Hours) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF-comm PV (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF-network additions (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF-resi PV (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | GF-solar PV penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | GJ/MWh (GJ/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | GSP annual growth fraction (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | GW/kW (GWh/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hour of the day (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hour of the year (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hourly coal emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hourly gas CC emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Hourly gas CT emissions (tCO2e) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NL in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly NS losses in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | Hourly TNU in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Hours per year (Hours/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Industry energy demand (GWh/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Initial annual network thermal load (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial coal capacity (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial coal fuel cost ($/GJ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,A | Initial comm FIT fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial commercial FIT ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial commercial tariff ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial energy intensity (GWh/$m/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial gas CC capacity (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial gas CT capacity (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,C | Initial gas fuel cost ($/GJ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial large customer tariff ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial network unit cost ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial residential FIT ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | LI,A | Initial residential FIT fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Initial residential tariff ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Initial thermal plant (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| .Control | C | INITIAL TIME (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | kW/MW (kW/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | kWh (kWh/(kW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | kWh/MWh (kWh/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Large customer hourly demand (kW/customer) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Large customer tariff ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LS solar capex ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LS solar CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LS solar FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LS solar hourly capex ($/MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LS solar hourly costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LS solar hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LS solar life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | LS solar lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LS solar PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LS solar VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | LSS share (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | LSS share by cost (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Max comm PV systems (Systems) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Max resi PV systems (Systems) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Maximum comm PV generation (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Maximum resi PV penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Minimum private storage discharge (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Month of the year (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | MW/GW (MW*Hour/GWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Net private storage hours (Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Network generation storage ratio (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Network storage loss fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Network storage minimum discharge level (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Network storage switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal Coal CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal coal life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal Gas CC CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal gas CC life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal Gas CT CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Nominal gas CT life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Normal annual comm electricity charges ($/(year*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Normal annual large cust electricity charges ($/(year*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Normal annual resi electricity charges ($/(year*customer)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | F,A | NS discharge in (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Onshore wind capex 2050 ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | PHES - battery split (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | PHES capex per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | PHES FOM ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | PHES hourly capex ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | PHES hourly costs per MWh ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | PHES life (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | PHES opex % (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | PHES PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Private PV capacity factor (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Renewables total share (1) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Resi demand lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Resi FIT adjustment time (Hours) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Resi PV purchase adj time (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Resi solar adjustment time (Hours) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Resi solar lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Resi solar switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Resi storage switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential demand met by solar PV (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential hourly demand (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential PV penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential storage capacity (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Residential storage penetration (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| .Control | A | SAVEPER (Hour ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Solar capacity adj time (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | start year (year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Sum of A-D (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | System/customer (system/customer) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Tariff multiplier switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Thermal network additions switch (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Thermal network undergeneration (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Thermal plant construction time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | time lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| .Control | C | TIME STEP (Hour ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total annual demand (GWh/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total annual demand in MWh (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total annual system generation (MW*Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total hourly demand (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total hourly demand - comm customers (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total hourly demand - large customers (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total hourly demand - resi customers (kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total private PV capacity (MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Total private storage capacity (Hour*MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Unit cost of comm battery storage ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Unit cost of commercial solar PV ($/kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Unit cost of utility scale battery storage ($/kWh) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Unit cost of utility scale solar PV ($/kW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | USBS FOM ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | USBS opex ($/(MW*Hour)/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Utility battery storage fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Utility scale battery storage capex per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Utility scale battery storage hourly costs per MWh ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Utility scale battery storage PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Utility scale hourly capex ($/(MW*Hour*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Utility solar PV fraction (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave capacity adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave capex 2050 ($/MW) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave capex adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave FOM ($/MW/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave hourly capex ($/MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave hourly costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Wave lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave share (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wave share by cost (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wave VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind capacity adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind capex adj time (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind CF (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind FOM ($/(MW*year)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind hourly capex ($/MW/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind hourly costs per MWh ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind hourly operating costs ($/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind life (Years) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A,T | Wind lookup (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind PMT (1/year) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind share (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Wind share by cost (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | Wind VOM ($/(MW*Hour)) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Year 0 (Dmnl) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | A | Year label (year ) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
| SWIS2050(2R) | C | years per hour (Years/Hour) | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] | 0 ( 0%) | 0 [ 0, 0] | 0 [ 0, 0] | NA | 0 [ 0, 0] |
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| Comm payback periods | 35 vars (5.9%) |
| Demand | 34 vars (5.8%) |
| Emissions | 26 vars (4.4%) |
| Hourly solar and storage | 59 vars (10%) |
| Network generation capacity and cost | 194 vars (32.9%) |
| Network loads | 51 vars (8.7%) |
| Network renewables transition | 53 vars (9%) |
| Network storage and generation | 110 vars (18.7%) |
| Resi payback periods | 42 vars (7.1%) |
| Solar PV | 67 vars (11.4%) |
| Tariffs and charges | 73 vars (12.4%) |