Co-Simulation Between ESP-r and TRNSYS Workshop

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a1,1 T1 z1a 2,2T 2z 2 a3,3 T 3z 3 a4,4 T4 z4 a5,4 a 5,5T 5z 5 a6,5 a6,6 a6,7 a6,14 T6 z6 a7,5 a 7,7T 7z 7 a8,7 a8,8 T8 z8a9,8 a 9,9T 9z 9a10,10 T10 z10 a11,11 T11 z11a 12,12T 12z 12 SOFCa13,13 T13 z13a14,14 a 14,18T 14z 14 a15,6 a15,15 a15,24 T15 z15 tanka 16,16T 16z 16 a17,16 a17,17 T17 z17a18,18 a 18,19 T18 z18a19,15 a 19,19T 19z 19 SH-pumpa20,20 a20,21 T20 z20a21,15 a 21,21T 21z 21 a22,22 a22,23 a22,24 T22 z22a23,22 a23,23 a 23,25 T 23z 23 water-air HX a24,20 a24,22 a24,24 T24 z24a 25,25 T 25 z25
• Philosophy• Source code changes<strong>TRNSYS</strong> Changes• A new category of Type• Overall convergence vs. <strong>TRNSYS</strong> convergence61
Page 7: Response Factor Method(Stephenson &
Page 10 and 11: Heat transfer (W)200018001600140012
Page 12 and 13: Co-simulation12
Page 14 and 15: “Internal” Coupling (≠ Co-Sim
Page 16 and 17: Source: Yuxiang Chen, A.K. Athienit
Page 18 and 19: No single BPS tool offers sufficien
Page 20 and 21: TRNSYS Methodologies• TRNSYS meth
Page 22 and 23: TRNSYS philosophyParametersInputsCo
Page 24 and 25: What’s in a component?Example: au
Page 26 and 27: TRNSYS solution methodology26
Page 28 and 29: Calling sequence for a standard Typ
Page 30 and 31: Conclusions• TRNSYS components ar
Page 32 and 33: ESP-r’s partitioned solution appr
Page 34 and 35: Relevant Heat and Mass Transfer Pro
Page 36 and 37: Form Heat Balances for Each CV:Intr
Page 38 and 39: Fully explicit form of discretized
Page 40 and 41: Crank-Nicholson difference formulat
Page 43 and 44: Plant Network
Page 45 and 46: CV Energy Balances
Page 47 and 48: a1,1 T1 z1a 2,2T 2z 2 a3,3 T 3
Page 49 and 50: Initiatetime-stepsimulationMZNUMA(S
Page 51 and 52: Design Approach• Middleware:• C
Page 53: timeESP-rBuilding domainPlant domai
Page 62 and 63: TRNSYS philosophy applied tocosimul
Page 64 and 65: Type 130 Inputs / OutputsINPUTSTYPE
Page 66 and 67: Type 130 and convergence• TRNSYS
Page 68: Does it work ?68
Page 72 and 73: E172
Page 74: E374
Page 80: Case study• Low-energy house:•
Page 93 and 94: Configuring a co-simulation :Demons
Page 95 and 96: Type 130DemoACC-RZonedataACC-SZone
Page 97 and 98: TRNSYS Project97
Page 99 and 100: Starting point• Launch Simulation
Page 101 and 102: Configure link to ESP-r (Type 130)
Page 103 and 104: Add components for hydronic loop•
Page 105 and 106: Define the hydronic loop• Use Lin
Page 107 and 108:
Add outputs to online plotter• Do
Page 109 and 110:
Prepare the input file for cosimula
Page 111 and 112:
Part 2: ESP-r Plant Network Cont’
Page 113 and 114:
Page 115 and 116:
Page 117:
Conclusions• ESP-r / TRNSYS co-si
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Co-Simulation Between ESP-r and TRNSYS Workshop

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