integration of solid oxide fuel cells and ... - Ea Energianalyse

C. EES
∆ T ;min;W GHE X 3;w;i = 15 [C ] ∆ T ;min;W GHE X 3;w;o = 3,673 [C ]
∆ T ;SOFC = 90 [C ] ∆ T ;SOFC ;av = 30 [C ]
DES1 h;i = 31 DES1 h;o = 32
DES1 i = 58 DES1 r ;o = 50
DES1 s;o = 59 DES2 h;i = 41
DES2 h;o = 42 DES2 i = 78
DES2 r ;o = 70 DES2 s;o = 79
EB SOFC ;sys = −9,261 [kW ] EB tot = −0,00000 [kW ]
ɛ ABSO = 0,6516 [-] ɛ COND1;2P = 0,2988 [-]
ɛ COND1;SH = −1,906 × 10 −13 [-] ɛ COND2;2P = 0,3195 [-]
ɛ COND2;SH = 0,8332 [-] ɛ DES1 = 1 [-]
ɛ DES2 = 1 [-] ɛ EV AP = 0,6502 [-]
ɛ GGHE X 1 = 0,7499 [-] ɛ GGHE X 1;c = 0,7499 [-]
ɛ GGHE X 1;h = 0,1299 [-] ɛ GGHE X 2 = 0,7499 [-]
ɛ GGHE X 2;c = 0,7499 [-] ɛ GGHE X 2;h = 0,6352 [-]
ɛ GGHE X 3 = 0,6539 [-] ɛ GGHE X 3;c = 0,6539 [-]
ɛ GGHE X 3;h = 0,6145 [-] ɛ GGHE X 4 = 0,892 [-]
ɛ GGHE X 4;c = 0,892 [-] ɛ GGHE X 4;c; = 0,892 [-]
ɛ GGHE X 4;h = 0,8457 [-] ɛ GGHE X 4;h; = 0,8457 [-]
ɛ M AX = 0,9558 [-] ɛ SHE X 1 = 0,8644 [-]
ɛ SHE X 1;ss = 0,8644 [-] ɛ SHE X 1;ws = 0,7803 [-]
ɛ SHE X 2 = 0,9339 [-] ɛ SHE X 2;s = 0,9339 [-]
ɛ SHE X 2;ws = 0,7887 [-] ɛ W GHE X 1 = 0,9558 [-]
ɛ W GHE X 1;g = 0,9558 [-] ɛ W GHE X 1;g ; = 0,9558 [-]
ɛ W GHE X 1;w = 0,01472 [-] ɛ W GHE X 1;w; = 0,01472 [-]
ɛ W GHE X 2 = 4,542 × 10 −10 [-] ɛ W GHE X 2;g = 4,542 × 10 −10 [-]
ɛ W GHE X 2;w = 1,849 × 10 −15 [-] ɛ W GHE X 3 = 0,905 [-]
ɛ W GHE X 3;g = 0,6121 [-] ɛ W GHE X 3;w = 0,905 [-]
η blower ;TOW ER1 = 0,4 [-] η HW = 0,02752 [-]
η inver t = 0,95 [-] η i s;BLOW 1 = 0,6 [-]
η PU MP1 = 0,5 [-] η PU MP2 = 0,5 [-]
η SOFC ;el ;SOLO = 0,5243 [-] η sys;el ;net = 0,4996 [-]
η sys;tot = 1,114 [-] η wb;TOW ER1 = 0,75 [-]
EV AP c;i = 48 EV AP c;o = 49
EV AP r ;i = 53 EV AP r ;o = 54
F R = 0,14 [-] FuelBP Ratio = 0
Fuel i = 1 FW = 0,6 [-]
GGHE X 1 c;i = 1 GGHE X 1 c;o = 2
GGHE X 1 h;i = 7 GGHE X 1 h;o = 8
GGHE X 2 c;i = 4 GGHE X 2 c;o = 5
GGHE X 2 h;i = 6 GGHE X 2 h;o = 7
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