删掉了注释掉的牛顿法求解方法

Signed-off-by: dugg@lab-desk <dugg@lab-desk>
This commit is contained in:
dugg@lab-desk 2014-10-29 21:58:02 +08:00
parent 4c2f16c8c7
commit ebc7882194
1 changed files with 0 additions and 79 deletions

79
run.m
View File

@ -147,62 +147,6 @@ ub=checkSSatisfied(Balance,phaseABCY,VoltpABC, ...
phaseASpotLoadP,phaseBSpotLoadP,phaseCSpotLoadP, ...
phaseASpotLoadQ,phaseBSpotLoadQ,phaseCSpotLoadQ );
fprintf('%f\n\n',full(max(abs(ub))))
%% begin
% fprintf('\n');
% [r,c,GB]=find(phaseABCY);
% Y=abs(phaseABCY);
% Yangle=angle(GB);
% Vp3=sparse(ones(busNum*3,1));%
% Vp3(2:3:end)=Vp3(2:3:end)*exp(1j*-120/180*pi);
% Vp3(3:3:end)=Vp3(3:3:end)*exp(1j*+120/180*pi);
% PQi3P=zeros(length(PQi)*3,1);
% PQi3P(1:3:end)=(PQi-1)*3+1;
% PQi3P(2:3:end)=(PQi-1)*3+2;
% PQi3P(3:3:end)=(PQi-1)*3+3;
% PG=0;
% QG=0;
% PD3P=sparse(busNum*3,1);
% QD3P=sparse(busNum*3,1);
% PD3P(1:3:end)=phaseASpotLoadP;
% PD3P(2:3:end)=phaseBSpotLoadP;
% PD3P(3:3:end)=phaseCSpotLoadP;
% QD3P(1:3:end)=phaseASpotLoadQ;
% QD3P(2:3:end)=phaseBSpotLoadQ;
% QD3P(3:3:end)=phaseCSpotLoadQ;
% QGi3P=zeros(length(QGi)*3,1);
% QGi3P(1:3:end)=(QGi-1)*3+1;
% QGi3P(2:3:end)=(QGi-1)*3+2;
% QGi3P(3:3:end)=(QGi-1)*3+3;
% Vp3m=abs(Vp3);
% Vp3a=angle(Vp3);
% Balance3P=zeros(length(Balance)*3,1);
% Balance3P(1:3:end)=(Balance-1)*3+1;
% Balance3P(2:3:end)=(Balance-1)*3+2;
% Balance3P(3:3:end)=(Balance-1)*3+3;
% Vp3a((Balance-1)*3+1)=0;
% Vp3a((Balance-1)*3+2)=-120/180*pi;
% Vp3a((Balance-1)*3+3)=+120/180*pi;
% k=0;
% maxD=10000;
% tic
% while(k<=kmax && maxD> EPS)
% k=k+1;
% [dP, dQ, YdotSinVolt, YdotCosVolt, diag_Volt_YdotSin, diag_Volt_YdotCos]=Unbalance(Balance3P,busNum*3, ...
% PQi3P,PG,QG,QGi3P,PD3P,QD3P,Vp3m,Vp3a,Y,Yangle,r,c,0,0,0,0);
% maxD=max(abs([dP;dQ;]));
% jaco=Jacobi(Balance3P,busNum*3,QGi3P,Vp3m,YdotSinVolt,YdotCosVolt,diag_Volt_YdotSin,diag_Volt_YdotCos);%
% [dV, dVangle]=Solv(busNum*3,jaco,dP,dQ);%
% [Vp3m, Vp3a]=Modify(Vp3m,Vp3a,dV,dVangle,1);
% fprintf(' %d %f\n',k,full(maxD));
% fprintf('%f\n',toc);
% end
% NewtonToc=toc;
% fprintf(' %f\n',NewtonToc);
% fprintf('%f\n',NewtonToc/FortiscueToc);
% VoltpA=Vp3m(1:3:end).*exp(1j*Vp3a(1:3:end));
% VoltpB=Vp3m(2:3:end).*exp(1j*Vp3a(2:3:end));
% VoltpC=Vp3m(3:3:end).*exp(1j*Vp3a(3:3:end));
%% end
%%
clear PD QD PG QG;
%
@ -229,12 +173,7 @@ If2=conj(f012(3,:)');
sigma=0.03;
mIf0=-If0;
mIf1=-If1;%mIf1,
% mIf1(3)=-mIf1(2);
mIf2=-If2;
% fsY11(:,Balance)=0;
% fsY11(Balance,:)=0;
% fsY11=fsY11+sparse(Balance,Balance,ones(length(Balance),1),busNum,busNum);
% mIf1(3)=1;
%%
%
fprintf('\n');
@ -302,24 +241,6 @@ wI0i=abs( imag(mIf0(Loadi).*sigmaI0) );
[ V0r,V0i,I0r,I0i ]=IPMLoop(V0measurement,wV0r,wV0i,I0measurement,wI0r,wI0i,BalI0r,BalI0i,busNum,Loadi,fsY00,Balance,0 );
f=sum(([real(I0measurement);imag(I0measurement)]-[I0r;I0i]).^2)+sum((real(rV0)-V0r).^2)+sum((imag(rV0)-V0i).^2);
% fprintf(' %f\n',full(f));
%
% SEVoltpA=sparse(ones(busNum,1));
% SEVoltpB=sparse(ones(busNum,1)).*exp(1j*-120/180*pi);
% SEVoltpC=sparse(ones(busNum,1)).*exp(1j*+120/180*pi);
% SEphaseASpotLoadP=zeros(length(phaseASpotLoadP),1);
% SEphaseBSpotLoadP=zeros(length(phaseBSpotLoadP),1);
% SEphaseCSpotLoadP=zeros(length(phaseCSpotLoadP),1);
% SEphaseASpotLoadQ=zeros(length(phaseASpotLoadQ),1);
% SEphaseBSpotLoadQ=zeros(length(phaseBSpotLoadQ),1);
% SEphaseCSpotLoadQ=zeros(length(phaseCSpotLoadQ),1);
%
% SEVmf1=sparse(ones(busNum,1));
% SEVaf1=sparse(zeros(busNum,1));
% SEPD=sparse(zeros(busNum,1));
% SEQD=sparse(zeros(busNum,1));
%
%%
%
SEVf0=V0r+1j*V0i;