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

C.3. Results - Optimized parameter configuration
∆ p;GGHE X 3;h = −4 [kPa] ∆ p;GGHE X 4;c = −2 [kPa]
∆ p;GGHE X 4;h = −2 [kPa] ∆ p;M I XG1;i ;1 = −0,1 [kPa]
∆ p;M I XG1;i ;2 = 9,1 [kPa] ∆ p;M I XG2;i ;1 = −0,1 [kPa]
∆ p;M I XG2;i ;2 = −1,1 [kPa] ∆ p;M I X L1;1 = 0 [kPa]
∆ p;M I X L1;2 = 0 [kPa]
∆ p;M I X R1;1 = 0 [kPa]
∆ p;M I X R1;2 = 0 [kPa]
∆ p;PR = −5 [kPa]
∆ p;PU MP1 = 3,933 [kPa] ∆ p;PU MP2 = 46,69 [kPa]
∆ p;SHE X 1;ss = 0 [kPa]
∆ p;SHE X 1;ws = 0 [kPa]
∆ p;SHE X 2;ss = 0 [kPa]
∆ p;SHE X 2;ws = 0 [kPa]
∆ p;SOFC ;ano = −1 [kPa]
∆ p;SOFC ;cat = −3 [kPa]
∆ p;SPG1;o;1 = −0,1 [kPa] ∆ p;SPG1;o;2 = −0,1 [kPa]
∆ p;SPG2;o;1 = −0,1 [kPa] ∆ p;SPG2;o;2 = −0,1 [kPa]
∆ p;TOW ER1;air = 0,15 [kPa] ∆ p;TOW ER1;air ;dr y = 0,15 [kPa]
∆ p;TOW ER1;air ;wet = 0,15 [kPa] ∆ p;TOW ER1;w = 0 [kPa]
∆ p;W GHE X 1;g = −2 [kPa] ∆ p;W GHE X 1;w = 0 [kPa]
∆ p;W GHE X 2;g = −2 [kPa] ∆ p;W GHE X 2;w = 0 [kPa]
∆ p;W GHE X 3;g = −2 [kPa] ∆ p;W GHE X 3;w = 0 [kPa]
∆ T ;CFG;C HK = 22,97 [C ] ∆ T ;chill;EV AP = 5 [C ]
∆ T ;COND;DES = 43,68 [C ] ∆ T ;c;ABSO = 3,386 [C ]
∆ T ;c;COND1 = 1,509 [C ] ∆ T ;c;COND2 = 5 [C ]
∆ T ;c;TOW ER1 = 5 [C ] ∆ T ;EV AP;ABSO = 20,71 [C ]
∆ T ;h;DES1 = 5 [C ] ∆ T ;h;DES2 = 5 [C ]
∆ T ;min;ABSO;s;o = 1,81 [C ] ∆ T ;min;COND1;mp = 7,012 [C ]
∆ T ;min;COND1;r ;i = 8,491 [C ] ∆ T ;min;COND1;r ;o = 10 [C ]
∆ T ;min;COND1;r ;o;D = 10 [C ] ∆ T ;min;COND1;r ;o;S = 12,5 [C ]
∆ T ;min;COND2;mp = 10,21 [C ] ∆ T ;min;COND2;r ;i = 61 [C ]
∆ T ;min;COND2;r ;o = 15 [C ] ∆ T ;min;DES1;r ;o = 0 [C ]
∆ T ;min;DES2;r ;o = 0 [C ] ∆ T ;min;EV AP;r ;i = 2,69 [C ]
∆ T ;min;EV AP;r ;o = 7,69 [C ] ∆ T ;min;GGHE X 1;c;i = 457,2 [C ]
∆ T ;min;GGHE X 1;c;o = 105,8 [C ] ∆ T ;min;GGHE X 2;c;i = 142,1 [C ]
∆ T ;min;GGHE X 2;c;o = 90 [C ] ∆ T ;min;GGHE X 3;c;i = 334,8 [C ]
∆ T ;min;GGHE X 3;c;o = 271 [C ] ∆ T ;min;GGHE X 4;c;i = 14,54 [C ]
∆ T ;min;GGHE X 4;c;i ; = 14,54 [C ] ∆ T ;min;GGHE X 4;c;o = 10,1 [C ]
∆ T ;min;GGHE X 4;c;o; = 10,1 [C ] ∆ T ;min;SHE X 1;ws;i = 5 [C ]
∆ T ;min;SHE X 1;ws;o = 8,099 [C ] ∆ T ;min;SHE X 2;ws;i = 5 [C ]
∆ T ;min;SHE X 2;ws;o = 15,99 [C ] ∆ T ;min;TOW ER1;a;i ;dr y = 3 [C ]
∆ T ;min;TOW ER1;a;o = 3 [C ] ∆ T ;min;TOW ER1;a;o;dr y = 8 [C ]
∆ T ;min;TOW ER1;a;o;wet = 3 [C ] ∆ T ;min;W GHE X 1;w;i = 15 [C ]
∆ T ;min;W GHE X 1;w;i ; = 15 [C ] ∆ T ;min;W GHE X 1;w;o = 334,7 [C ]
∆ T ;min;W GHE X 1;w;o; = 334,7 [C ] ∆ T ;min;W GHE X 2;w;i = 76 [C ]
∆ T ;min;W GHE X 2;w;i ; = 15 [C ] ∆ T ;min;W GHE X 2;w;o = 76 [C ]
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