Model: RENEWABLE.+arreglo+solar.default
Version: 4
Date and Time: 15/06/2016 19:49:02.284000
Library: RENEWABLE
Library dependency list: RENEWABLE V2.0
Software: PROOSIS V3.6.14


GENERAL STATISTICS
INFO  #  
Number of equations: 79 
Number of boxes (coupled subsystems of equations): 14 
Number of linear boxes: 
Number of nonlinear boxes: 14 
Number of input DATA: 32 
Number of input BOUNDARY: 
Number of output EXPLICIT : 65 
Number of output DYNAMIC/DERIVATIVE: 
Number of output ALGEBRAIC: 14 
Size of Jacobian matrix (DYNAMIC+ALGEBRAIC): 14x14 
Sparsity factor in Jacobian matrix (% of zeros): 92.857142857142861 
Default integration method: DASSL 

TYPE OF VARIABLES
TYPE  VARIABLE  DATA  CONSTANT  
REAL 94 32 
INTEGER 
STRING 
TABLE 

GLOBAL FLAGS:
FLAG  VALUE  
Remove derivatives FALSE 
Inhibit automatic reduction of equations FALSE 
Remove not used variables FALSE 
Generate code to check mathematical functions TRUE 
Generate code to analyse the performance of functions FALSE 
Obfuscate partition and experiment C++ generated code TRUE 

BOUNDARIES:
NAME  ALIAS  UNITS  DESCRIPTION  INITIAL  
Vpvg  Volts  Voltaje de salida (Volts)  

JACOBIAN INDEPENDENT VARIABLES:

POS  VARIABLE  ALIAS  CATEGORY  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  BOX  
Ipvg[1]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-13] Ipvg[1] = Iscg[1] * (1. - exp((Vpvg + Rsg * Ipvg[1] - Vocg[1]) / (vt * Nsm * Nsc))) 
Imax[1]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-18] dIdV[1] = -Iscg[1] * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[1] * Rsg * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 
Ipvg[2]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-23] Ipvg[2] = Iscg[2] * (1. - exp((Vpvg + Rsg * Ipvg[2] - Vocg[2]) / (vt * Nsm * Nsc))) 
Imax[2]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-28] dIdV[2] = -Iscg[2] * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[2] * Rsg * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 
Ipvg[3]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-33] Ipvg[3] = Iscg[3] * (1. - exp((Vpvg + Rsg * Ipvg[3] - Vocg[3]) / (vt * Nsm * Nsc))) 
Imax[3]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-38] dIdV[3] = -Iscg[3] * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[3] * Rsg * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 
Ipvg[4]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-43] Ipvg[4] = Iscg[4] * (1. - exp((Vpvg + Rsg * Ipvg[4] - Vocg[4]) / (vt * Nsm * Nsc))) 
Imax[4]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-48] dIdV[4] = -Iscg[4] * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[4] * Rsg * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 
Ipvg[5]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-53] Ipvg[5] = Iscg[5] * (1. - exp((Vpvg + Rsg * Ipvg[5] - Vocg[5]) / (vt * Nsm * Nsc))) 
10 Imax[5]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-58] dIdV[5] = -Iscg[5] * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[5] * Rsg * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 10 
11 Ipvg[6]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-63] Ipvg[6] = Iscg[6] * (1. - exp((Vpvg + Rsg * Ipvg[6] - Vocg[6]) / (vt * Nsm * Nsc))) 11 
12 Imax[6]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-68] dIdV[6] = -Iscg[6] * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[6] * Rsg * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 12 
13 Ipvg[7]  ALGEBRAIC Amps  Auxiliar corriente de salida (Amps)  [E-73] Ipvg[7] = Iscg[7] * (1. - exp((Vpvg + Rsg * Ipvg[7] - Vocg[7]) / (vt * Nsm * Nsc))) 13 
14 Imax[7]  ALGEBRAIC Amps  Corriente en el punto de máxima potencia (Amps)  [E-78] dIdV[7] = -Iscg[7] * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[7] * Rsg * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 14 

USER DATA TYPES:


TYPES:
TYPE  NAME  

MODEL VARIABLES:


VARIABLES:
NAME  UNITS  EQUIV-TO  STATION  TYPE  MATH-TYPE  INITIAL  LRANGE  RRANGE  ALIAS  IS-ALIAS  EDIT  TRACE  STORE  DECK-IN  DECK-OUT  
1 Alfa %/°C   REAL DATA_VAR 0.1    NO YES NO NO NO NO 
2 Beta %/°C   REAL DATA_VAR -0.38    NO YES NO NO NO NO 
3 Efficiency   REAL DATA_VAR 14.6    NO YES NO NO NO NO 
4 FF    REAL EXPLICIT     NO YES NO NO NO NO 
5 FFo    REAL EXPLICIT     NO YES NO NO NO NO 
6 w/m2   REAL[7] DATA_VAR { 1000,1000,1000,1000,100...    NO YES NO NO NO NO 
7 Gamma %/°C   REAL DATA_VAR -0.47    NO YES NO NO NO NO 
8 Gstc w/m2   REAL DATA_VAR 1000    NO YES NO NO NO NO 
9 Imax Amps   REAL[7] EXPLICIT     NO YES NO NO NO NO 
10 Imax[1] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
11 Imax[2] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
12 Imax[3] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
13 Imax[4] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
14 Imax[5] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
15 Imax[6] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
16 Imax[7] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
17 Impmstc Amps   REAL DATA_VAR 5.11    NO YES NO NO NO NO 
18 Ipvg Amps   REAL[7] EXPLICIT     NO YES NO NO NO NO 
19 Ipvg[1] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
20 Ipvg[2] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
21 Ipvg[3] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
22 Ipvg[4] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
23 Ipvg[5] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
24 Ipvg[6] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
25 Ipvg[7] Amps   REAL ALGEBRAIC     NO YES NO NO NO NO 
26 Ipvga Amps   REAL[7] EXPLICIT     NO YES NO NO NO NO 
27 Isc Amps   REAL EXPLICIT     NO YES NO NO NO NO 
28 Iscg Amps   REAL[7] EXPLICIT     NO YES NO NO NO NO 
29 Iscmstc Amps   REAL DATA_VAR 5.51    NO YES NO NO NO NO 
30 NOCT ºC   REAL DATA_VAR 46    NO YES NO NO NO NO 
31 Npc    REAL DATA_VAR    NO YES NO NO NO NO 
32 Npm    REAL DATA_VAR    NO YES NO NO NO NO 
33 Nsc    REAL DATA_VAR 12    NO YES NO NO NO NO 
34 Nsm    REAL DATA_VAR    NO YES NO NO NO NO 
35 Pmax Wp   REAL EXPLICIT     NO YES NO NO NO NO 
36 Pmaxmstc Wp   REAL DATA_VAR 185    NO YES NO NO NO NO 
37 Pmpp   REAL[7] EXPLICIT     NO YES NO NO NO NO 
38 Ppv   REAL[7] EXPLICIT     NO YES NO NO NO NO 
39 Rsg Ohms   REAL EXPLICIT     NO YES NO NO NO NO 
40 Rsm Ohms   REAL EXPLICIT     NO YES NO NO NO NO 
41 Surface m2   REAL DATA_VAR 1.277    NO YES NO NO NO NO 
42 Tcell ºC   REAL[7] EXPLICIT     NO YES NO NO NO NO 
43 Tenv ºC   REAL[7] DATA_VAR { 0,5,10,15,20,25,30}     NO YES NO NO NO NO 
44 Tref ºC   REAL DATA_VAR 25    NO YES NO NO NO NO 
45 Vmax Volts   REAL[7] EXPLICIT     NO YES NO NO NO NO 
46 Vmpmstc Volts   REAL DATA_VAR 36.2    NO YES NO NO NO NO 
47 Voc Volts   REAL EXPLICIT     NO YES NO NO NO NO 
48 Vocg Volts   REAL[7] EXPLICIT     NO YES NO NO NO NO 
49 Vocmstc Volts   REAL DATA_VAR 44.8    NO YES NO NO NO NO 
50 Vocn    REAL EXPLICIT     NO YES NO NO NO NO 
51 Vpvg Volts   REAL BOUNDARY     NO YES NO NO NO NO 
52 dIdV    REAL[7] EXPLICIT     NO YES NO NO NO NO 
53 rs    REAL EXPLICIT     NO YES NO NO NO NO 
54 vt Volts   REAL DATA_VAR 0.0248    NO YES NO NO NO NO 


Note 3: In equations 'E' means explicit,'I' implicit,'L' linear,'F' function

SORTED EQUATIONS:

###eqts 79
[E-1] Voc = Vocmstc / Nsc
[E-2] Vocn = Voc / vt
[E-3] Isc = Iscmstc / Npc
[E-4] Pmax = Pmaxmstc / (Npc * Nsc)
[E-5] FF = Pmax / (Isc * Voc)
[E-6] FFo = (Vocn - log(Vocn + 0.72)) / (Vocn + 1.)
[E-7] rs = 1. - FF / FFo
[E-8] Rsm = rs * Vocmstc / Iscmstc
[E-9] Rsg = Rsm * Nsm / Npm
[E-10] Tcell[1] = Tenv[1] + G[1] * (NOCT - 20.) / 800.
[E-11] Vocg[1] = Nsm * Vocmstc * (1. + Beta * (Tcell[1] - Tref) / 100.)
[E-12] Iscg[1] = Npm * Iscmstc * G[1] * (1. + Alfa * (Tcell[1] - Tref) / 100.) / Gstc


BOX 1 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[1]  Amps  Auxiliar corriente de salida (Amps)  [E-13] Ipvg[1] = Iscg[1] * (1. - exp((Vpvg + Rsg * Ipvg[1] - Vocg[1]) / (vt * Nsm * Nsc))) 

Equations:

    [E-13] (Residue equation) Ipvg[1] = Iscg[1] * (1. - exp((Vpvg + Rsg * Ipvg[1] - Vocg[1]) / (vt * Nsm * Nsc))) {I@Ipvg[1]}

END OF BOX 1
[E-14] Ipvga[1] = ZONE[1] (Ipvg[1] <= 0) 0 OTHERS Ipvg[1]
[E-15] Ppv[1] = Ipvga[1] * Vpvg


BOX 2 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[1]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-18] dIdV[1] = -Iscg[1] * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[1] * Rsg * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-16] Vmax[1] = vt * Nsm * Nsc * log10(1. - Imax[1] / Iscg[1]) + Vocg[1] - Imax[1] * Rsg
    [E-17] dIdV[1] = Imax[1] / -Vmax[1]
    [E-18] (Residue equation) dIdV[1] = -Iscg[1] * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[1] * Rsg * exp((Vmax[1] + Rsg * Imax[1] - Vocg[1]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[1]}

END OF BOX 2
[E-19] Pmpp[1] = Imax[1] * Vmax[1]
[E-20] Tcell[2] = Tenv[2] + G[2] * (NOCT - 20.) / 800.
[E-21] Vocg[2] = Nsm * Vocmstc * (1. + Beta * (Tcell[2] - Tref) / 100.)
[E-22] Iscg[2] = Npm * Iscmstc * G[2] * (1. + Alfa * (Tcell[2] - Tref) / 100.) / Gstc


BOX 3 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[2]  Amps  Auxiliar corriente de salida (Amps)  [E-23] Ipvg[2] = Iscg[2] * (1. - exp((Vpvg + Rsg * Ipvg[2] - Vocg[2]) / (vt * Nsm * Nsc))) 

Equations:

    [E-23] (Residue equation) Ipvg[2] = Iscg[2] * (1. - exp((Vpvg + Rsg * Ipvg[2] - Vocg[2]) / (vt * Nsm * Nsc))) {I@Ipvg[2]}

END OF BOX 3
[E-24] Ipvga[2] = ZONE[2] (Ipvg[2] <= 0) 0 OTHERS Ipvg[2]
[E-25] Ppv[2] = Ipvga[2] * Vpvg


BOX 4 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[2]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-28] dIdV[2] = -Iscg[2] * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[2] * Rsg * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-26] Vmax[2] = vt * Nsm * Nsc * log10(1. - Imax[2] / Iscg[2]) + Vocg[2] - Imax[2] * Rsg
    [E-27] dIdV[2] = Imax[2] / -Vmax[2]
    [E-28] (Residue equation) dIdV[2] = -Iscg[2] * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[2] * Rsg * exp((Vmax[2] + Rsg * Imax[2] - Vocg[2]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[2]}

END OF BOX 4
[E-29] Pmpp[2] = Imax[2] * Vmax[2]
[E-30] Tcell[3] = Tenv[3] + G[3] * (NOCT - 20.) / 800.
[E-31] Vocg[3] = Nsm * Vocmstc * (1. + Beta * (Tcell[3] - Tref) / 100.)
[E-32] Iscg[3] = Npm * Iscmstc * G[3] * (1. + Alfa * (Tcell[3] - Tref) / 100.) / Gstc


BOX 5 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[3]  Amps  Auxiliar corriente de salida (Amps)  [E-33] Ipvg[3] = Iscg[3] * (1. - exp((Vpvg + Rsg * Ipvg[3] - Vocg[3]) / (vt * Nsm * Nsc))) 

Equations:

    [E-33] (Residue equation) Ipvg[3] = Iscg[3] * (1. - exp((Vpvg + Rsg * Ipvg[3] - Vocg[3]) / (vt * Nsm * Nsc))) {I@Ipvg[3]}

END OF BOX 5
[E-34] Ipvga[3] = ZONE[3] (Ipvg[3] <= 0) 0 OTHERS Ipvg[3]
[E-35] Ppv[3] = Ipvga[3] * Vpvg


BOX 6 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[3]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-38] dIdV[3] = -Iscg[3] * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[3] * Rsg * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-36] Vmax[3] = vt * Nsm * Nsc * log10(1. - Imax[3] / Iscg[3]) + Vocg[3] - Imax[3] * Rsg
    [E-37] dIdV[3] = Imax[3] / -Vmax[3]
    [E-38] (Residue equation) dIdV[3] = -Iscg[3] * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[3] * Rsg * exp((Vmax[3] + Rsg * Imax[3] - Vocg[3]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[3]}

END OF BOX 6
[E-39] Pmpp[3] = Imax[3] * Vmax[3]
[E-40] Tcell[4] = Tenv[4] + G[4] * (NOCT - 20.) / 800.
[E-41] Vocg[4] = Nsm * Vocmstc * (1. + Beta * (Tcell[4] - Tref) / 100.)
[E-42] Iscg[4] = Npm * Iscmstc * G[4] * (1. + Alfa * (Tcell[4] - Tref) / 100.) / Gstc


BOX 7 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[4]  Amps  Auxiliar corriente de salida (Amps)  [E-43] Ipvg[4] = Iscg[4] * (1. - exp((Vpvg + Rsg * Ipvg[4] - Vocg[4]) / (vt * Nsm * Nsc))) 

Equations:

    [E-43] (Residue equation) Ipvg[4] = Iscg[4] * (1. - exp((Vpvg + Rsg * Ipvg[4] - Vocg[4]) / (vt * Nsm * Nsc))) {I@Ipvg[4]}

END OF BOX 7
[E-44] Ipvga[4] = ZONE[4] (Ipvg[4] <= 0) 0 OTHERS Ipvg[4]
[E-45] Ppv[4] = Ipvga[4] * Vpvg


BOX 8 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[4]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-48] dIdV[4] = -Iscg[4] * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[4] * Rsg * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-46] Vmax[4] = vt * Nsm * Nsc * log10(1. - Imax[4] / Iscg[4]) + Vocg[4] - Imax[4] * Rsg
    [E-47] dIdV[4] = Imax[4] / -Vmax[4]
    [E-48] (Residue equation) dIdV[4] = -Iscg[4] * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[4] * Rsg * exp((Vmax[4] + Rsg * Imax[4] - Vocg[4]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[4]}

END OF BOX 8
[E-49] Pmpp[4] = Imax[4] * Vmax[4]
[E-50] Tcell[5] = Tenv[5] + G[5] * (NOCT - 20.) / 800.
[E-51] Vocg[5] = Nsm * Vocmstc * (1. + Beta * (Tcell[5] - Tref) / 100.)
[E-52] Iscg[5] = Npm * Iscmstc * G[5] * (1. + Alfa * (Tcell[5] - Tref) / 100.) / Gstc


BOX 9 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[5]  Amps  Auxiliar corriente de salida (Amps)  [E-53] Ipvg[5] = Iscg[5] * (1. - exp((Vpvg + Rsg * Ipvg[5] - Vocg[5]) / (vt * Nsm * Nsc))) 

Equations:

    [E-53] (Residue equation) Ipvg[5] = Iscg[5] * (1. - exp((Vpvg + Rsg * Ipvg[5] - Vocg[5]) / (vt * Nsm * Nsc))) {I@Ipvg[5]}

END OF BOX 9
[E-54] Ipvga[5] = ZONE[5] (Ipvg[5] <= 0) 0 OTHERS Ipvg[5]
[E-55] Ppv[5] = Ipvga[5] * Vpvg


BOX 10 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[5]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-58] dIdV[5] = -Iscg[5] * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[5] * Rsg * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-56] Vmax[5] = vt * Nsm * Nsc * log10(1. - Imax[5] / Iscg[5]) + Vocg[5] - Imax[5] * Rsg
    [E-57] dIdV[5] = Imax[5] / -Vmax[5]
    [E-58] (Residue equation) dIdV[5] = -Iscg[5] * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[5] * Rsg * exp((Vmax[5] + Rsg * Imax[5] - Vocg[5]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[5]}

END OF BOX 10
[E-59] Pmpp[5] = Imax[5] * Vmax[5]
[E-60] Tcell[6] = Tenv[6] + G[6] * (NOCT - 20.) / 800.
[E-61] Vocg[6] = Nsm * Vocmstc * (1. + Beta * (Tcell[6] - Tref) / 100.)
[E-62] Iscg[6] = Npm * Iscmstc * G[6] * (1. + Alfa * (Tcell[6] - Tref) / 100.) / Gstc


BOX 11 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[6]  Amps  Auxiliar corriente de salida (Amps)  [E-63] Ipvg[6] = Iscg[6] * (1. - exp((Vpvg + Rsg * Ipvg[6] - Vocg[6]) / (vt * Nsm * Nsc))) 

Equations:

    [E-63] (Residue equation) Ipvg[6] = Iscg[6] * (1. - exp((Vpvg + Rsg * Ipvg[6] - Vocg[6]) / (vt * Nsm * Nsc))) {I@Ipvg[6]}

END OF BOX 11
[E-64] Ipvga[6] = ZONE[6] (Ipvg[6] <= 0) 0 OTHERS Ipvg[6]
[E-65] Ppv[6] = Ipvga[6] * Vpvg


BOX 12 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[6]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-68] dIdV[6] = -Iscg[6] * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[6] * Rsg * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-66] Vmax[6] = vt * Nsm * Nsc * log10(1. - Imax[6] / Iscg[6]) + Vocg[6] - Imax[6] * Rsg
    [E-67] dIdV[6] = Imax[6] / -Vmax[6]
    [E-68] (Residue equation) dIdV[6] = -Iscg[6] * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[6] * Rsg * exp((Vmax[6] + Rsg * Imax[6] - Vocg[6]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[6]}

END OF BOX 12
[E-69] Pmpp[6] = Imax[6] * Vmax[6]
[E-70] Tcell[7] = Tenv[7] + G[7] * (NOCT - 20.) / 800.
[E-71] Vocg[7] = Nsm * Vocmstc * (1. + Beta * (Tcell[7] - Tref) / 100.)
[E-72] Iscg[7] = Npm * Iscmstc * G[7] * (1. + Alfa * (Tcell[7] - Tref) / 100.) / Gstc


BOX 13 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Ipvg[7]  Amps  Auxiliar corriente de salida (Amps)  [E-73] Ipvg[7] = Iscg[7] * (1. - exp((Vpvg + Rsg * Ipvg[7] - Vocg[7]) / (vt * Nsm * Nsc))) 

Equations:

    [E-73] (Residue equation) Ipvg[7] = Iscg[7] * (1. - exp((Vpvg + Rsg * Ipvg[7] - Vocg[7]) / (vt * Nsm * Nsc))) {I@Ipvg[7]}

END OF BOX 13
[E-74] Ipvga[7] = ZONE[7] (Ipvg[7] <= 0) 0 OTHERS Ipvg[7]
[E-75] Ppv[7] = Ipvga[7] * Vpvg


BOX 14 IS NONLINEAR
ALGEBRAICS  ALIAS  UNITS  DESCRIPTION  INITIAL  RESIDUE EQUATION  
Imax[7]  Amps  Corriente en el punto de máxima potencia (Amps)  [E-78] dIdV[7] = -Iscg[7] * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[7] * Rsg * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) 

Equations:

    [E-76] Vmax[7] = vt * Nsm * Nsc * log10(1. - Imax[7] / Iscg[7]) + Vocg[7] - Imax[7] * Rsg
    [E-77] dIdV[7] = Imax[7] / -Vmax[7]
    [E-78] (Residue equation) dIdV[7] = -Iscg[7] * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc) / (1. - -Iscg[7] * Rsg * exp((Vmax[7] + Rsg * Imax[7] - Vocg[7]) / (vt * Nsm * Nsc)) / (vt * Nsm * Nsc)) {I@Imax[7]}

END OF BOX 14
[E-79] Pmpp[7] = Imax[7] * Vmax[7]



Document generated automatically with PROOSIS Version: 3.6.14 Date: 2016:06:15 Time: 19:49:02