25 double E1 = params->
E1;
26 double E2 = params->
E2;
27 double E3 = params->
Eref;
29 double *G = params->
G;
30 double *B = params->
B;
33 Eph[0][0] = E1*cos(theta1); Eph[0][1] = E1*sin(theta1);
34 Eph[1][0] = E2*cos(theta2); Eph[1][1] = E2*sin(theta2);
35 Eph[2][0] = E3; Eph[2][1] = 0.0;
41 Y[i][j][0] = G[i*3+j];
42 Y[i][j][1] = B[i*3+j];
47 YEph[0][0] = Y[0][0][0]*Eph[0][0] - Y[0][0][1]*Eph[0][1]
48 + Y[0][1][0]*Eph[1][0] - Y[0][1][1]*Eph[1][1]
49 + Y[0][2][0]*Eph[2][0] - Y[0][2][1]*Eph[2][1];
50 YEph[0][1] = Y[0][0][0]*Eph[0][1] + Y[0][0][1]*Eph[0][0]
51 + Y[0][1][0]*Eph[1][1] + Y[0][1][1]*Eph[1][0]
52 + Y[0][2][0]*Eph[2][1] + Y[0][2][1]*Eph[2][0];
53 YEph[1][0] = Y[1][0][0]*Eph[0][0] - Y[1][0][1]*Eph[0][1]
54 + Y[1][1][0]*Eph[1][0] - Y[1][1][1]*Eph[1][1]
55 + Y[1][2][0]*Eph[2][0] - Y[1][2][1]*Eph[2][1];
56 YEph[1][1] = Y[1][0][0]*Eph[0][1] + Y[1][0][1]*Eph[0][0]
57 + Y[1][1][0]*Eph[1][1] + Y[1][1][1]*Eph[1][0]
58 + Y[1][2][0]*Eph[2][1] + Y[1][2][1]*Eph[2][0];
59 YEph[2][0] = Y[2][0][0]*Eph[0][0] - Y[2][0][1]*Eph[0][1]
60 + Y[2][1][0]*Eph[1][0] - Y[2][1][1]*Eph[1][1]
61 + Y[2][2][0]*Eph[2][0] - Y[2][2][1]*Eph[2][1];
62 YEph[2][1] = Y[2][0][0]*Eph[0][1] + Y[2][0][1]*Eph[0][0]
63 + Y[2][1][0]*Eph[1][1] + Y[2][1][1]*Eph[1][0]
64 + Y[2][2][0]*Eph[2][1] + Y[2][2][1]*Eph[2][0];
66 YEph[0][1] = - YEph[0][1];
67 YEph[1][1] = - YEph[1][1];
68 YEph[2][1] = - YEph[2][1];
70 *Pe1 = Eph[0][0]*YEph[0][0] - Eph[0][1]*YEph[0][1];
71 *Pe2 = Eph[1][0]*YEph[1][0] - Eph[1][1]*YEph[1][1];
72 *Pe3 = Eph[2][0]*YEph[2][0] - Eph[2][1]*YEph[2][1];
91 double omegaB = params->
omegaB;
92 double Pm1_avg = params->
Pm1_avg;
93 double Pm2_avg = params->
Pm2_avg;
95 double H1 = params->
H1;
96 double H2 = params->
H2;
97 double Href = params->
Href;
98 double gamma = params->
gamma;
100 double Pe1, Pe2, Peref;
103 double F1 = Pm1_avg / (2*H1) - Pmref_avg / (2*Href);
104 double F2 = Pm2_avg / (2*H2) - Pmref_avg / (2*Href);
105 double S1 = Pe1 / (2*H1) - Peref / (2*Href);
106 double S2 = Pe2 / (2*H2) - Peref / (2*Href);
108 drift[0] = omegaB * Omega1;
109 drift[1] = omegaB * Omega2;
110 drift[2] = F1 - gamma*Omega1 - S1;
111 drift[3] = F2 - gamma*Omega2 - S2;
129 double sigma11 = params->
sigma[0][0];
130 double sigma12 = params->
sigma[0][1];
131 double sigma21 = params->
sigma[1][0];
132 double sigma22 = params->
sigma[1][1];
134 double lambda11 = params->
lambda[0][0];
135 double lambda12 = params->
lambda[0][1];
136 double lambda21 = params->
lambda[1][0];
137 double lambda22 = params->
lambda[1][1];
139 double gamma = params->
gamma;
140 double omegaB = params->
omegaB;
144 dissp[2*_MODEL_NDIMS_+0] = sigma11*sigma11*lambda11*lambda11*omegaB;
145 dissp[2*_MODEL_NDIMS_+1] = sigma12*sigma12*lambda12*lambda12*omegaB;
146 dissp[3*_MODEL_NDIMS_+0] = sigma21*sigma21*lambda21*lambda21*omegaB;
147 dissp[3*_MODEL_NDIMS_+1] = sigma22*sigma22*lambda22*lambda22*omegaB;
149 dissp[2*_MODEL_NDIMS_+2] = sigma11*sigma11*lambda11*(1.0-gamma*lambda11);
150 dissp[2*_MODEL_NDIMS_+3] = sigma12*sigma12*lambda12*(1.0-gamma*lambda12);
151 dissp[3*_MODEL_NDIMS_+2] = sigma21*sigma21*lambda21*(1.0-gamma*lambda21);
152 dissp[3*_MODEL_NDIMS_+3] = sigma22*sigma22*lambda22*(1.0-gamma*lambda22);
156 dissp[2*_MODEL_NDIMS_+0] = sigma11*sigma11*lambda11*omegaB*(lambda11*(1-exp(-t/lambda11))-t*exp(-t/lambda11));
157 dissp[2*_MODEL_NDIMS_+1] = sigma12*sigma12*lambda12*omegaB*(lambda12*(1-exp(-t/lambda12))-t*exp(-t/lambda12));
158 dissp[3*_MODEL_NDIMS_+0] = sigma21*sigma21*lambda21*omegaB*(lambda21*(1-exp(-t/lambda21))-t*exp(-t/lambda21));
159 dissp[3*_MODEL_NDIMS_+1] = sigma22*sigma22*lambda22*omegaB*(lambda22*(1-exp(-t/lambda22))-t*exp(-t/lambda22));
161 dissp[2*_MODEL_NDIMS_+2] = sigma11*sigma11*(lambda11*(1-exp(-t/lambda11))+gamma*lambda11*(t*exp(-t/lambda11)-lambda11*(1-exp(-t/lambda11))));
162 dissp[2*_MODEL_NDIMS_+3] = sigma12*sigma12*(lambda12*(1-exp(-t/lambda12))+gamma*lambda12*(t*exp(-t/lambda12)-lambda12*(1-exp(-t/lambda12))));
163 dissp[3*_MODEL_NDIMS_+2] = sigma21*sigma21*(lambda21*(1-exp(-t/lambda21))+gamma*lambda21*(t*exp(-t/lambda21)-lambda21*(1-exp(-t/lambda21))));
164 dissp[3*_MODEL_NDIMS_+3] = sigma22*sigma22*(lambda22*(1-exp(-t/lambda22))+gamma*lambda22*(t*exp(-t/lambda22)-lambda22*(1-exp(-t/lambda22))));
int FPPowerSystem3BusDissipationFunction(int, int, void *, double, double *)
#define _ArraySetValue_(x, size, value)
static void ComputeElectricalPower(double theta1, double theta2, void *p, double *Pe1, double *Pe2, double *Pe3)
int FPPowerSystem3BusDriftFunction(int, void *, double *, double, double *)
Structure containing variable and parameters specific to the 3-bus power system model. This structure contains the physical parameters and variables for the Fokker-Planck model for a 3-bus power system.
Some basic definitions and macros.
Contains macros and function definitions for common array operations.