Re call(A0& a0) const
{
return Re();
}
/* Lambda formula: z(0)=p, lambda=const., z(n+1) = lambda*z(n)*(1 - z(n)). */
static ordinal_number_t calculate_lambda(lambda_t* handle, const complex_number_t* position)
{
/* Lambda fractal constants. */
real_number_t bailout_square;
/* Three helper variables. */
real_number_t radius_square;
real_number_t help;
real_number_t help_two;
ordinal_number_t step;
/*
* Z stores the complex number during the iterations, Zn is the next iteration step.
*/
complex_number_t Z;
complex_number_t Zn;
/* These ones accelerate the calculation. */
complex_number_t Z_square;
real_number_t ReZs_ImZs;
real_number_t ReZ_ImZ;
/* Lambda parameter. */
complex_number_t lambda;
/* Init multiple precision vars. */
mpf_set_default_prec(sizeof(char)*handle->prec);
mpf_init(bailout_square);
mpf_init(Re(lambda));
mpf_init(Im(lambda));
mpf_init(Re(Z_square));
mpf_init(Im(Z_square));
mpf_init(ReZs_ImZs);
mpf_init(ReZ_ImZ);
mpf_init(Re(Z));
mpf_init(Im(Z));
mpf_init(Re(Zn));
mpf_init(Im(Zn));
mpf_init(radius_square);
mpf_init(help);
mpf_init(help_two);
/* Set the bailout square constant. */
mpf_set_d(bailout_square,4);
mpf_set(Re(lambda),Re(handle->lambda));
mpf_set(Im(lambda),Im(handle->lambda));
/* The calculation begins with the a point on the complex plane. */
mpf_set(Re(Z),position->real_part);
mpf_set(Im(Z),position->imaginary_part);
//fprintf(stderr,"Hallo\n");
/* Now do the iteration. */
for (step=0;step<handle->iteration_steps;step++)
{
/* Calculate Z_square first, as we can use a faster formula then. */
mpf_mul(Re(Z_square),Re(Z),Re(Z));
mpf_mul(Im(Z_square),Im(Z),Im(Z));
/* Calculate the radius from complex pane origin to Z. */
mpf_add(radius_square,Re(Z_square),Im(Z_square));
/* Break the iteration if the mandelbrot bailout orbit is left. */
if (mpf_cmp(radius_square,bailout_square)>0) break;
/* Two other speed up variables. */
mpf_sub(ReZs_ImZs,Re(Z_square),Im(Z_square));
mpf_mul(ReZ_ImZ,Im(Z),Re(Z));
/* Now calculate the lambda function. */
mpf_mul(help,Re(lambda),Re(Z));
mpf_mul(help_two,Im(lambda),Im(Z));
mpf_sub(help,help,help_two);
mpf_mul(help_two,Re(lambda),ReZs_ImZs);
mpf_add(help,help,help_two);
mpf_mul_ui(help_two,Im(lambda),2);
mpf_mul(help_two,help_two,ReZ_ImZ);
mpf_sub(Re(Zn),help,help_two);
mpf_mul(help,Re(lambda),Im(Z));
mpf_mul(help_two,Im(lambda),Re(Z));
mpf_add(help,help,help_two);
mpf_mul(help_two,Im(lambda),ReZs_ImZs);
mpf_add(help,help,help_two);
mpf_mul_ui(help_two,Re(lambda),2);
mpf_mul(help_two,help_two,ReZ_ImZ);
mpf_add(Im(Zn),help,help_two);
/* Copy Zn to Z */
mpf_set(Re(Z),Re(Zn));
mpf_set(Im(Z),Im(Zn));
}
/* Clear multiple precision Variables. */
mpf_clear(bailout_square);
mpf_clear(radius_square);
mpf_clear(help);
mpf_clear(help_two);
mpf_clear(Re(Z));
mpf_clear(Im(Z));
mpf_clear(Re(Zn));
mpf_clear(Im(Zn));
mpf_clear(Re(Z_square));
mpf_clear(Im(Z_square));
mpf_clear(ReZs_ImZs);
mpf_clear(ReZ_ImZ);
mpf_clear(Re(lambda));
mpf_clear(Im(lambda));
return step; /* Return the iteration step in which we reached the bailout radius. */
}
int FSolver::HarmonicAxisymmetric(CBigComplexLinProb &L)
{
int i,j,k,s,flag,sdi_iter,sdin,ww,Iter=0;
int pctr;
CComplex Mx[3][3],My[3][3],Mn[3][3],Me[3][3],be[3]; // element matrices;
double l[3],p[3],q[3]; // element shape parameters;
int n[3]; // numbers of nodes for a particular element;
double a,r,t,x,y,B,w,res,lastres,ds,R,rn[3],g[3],a_hat,R_hat,vol,Cduct;
CComplex K,mu,dv,B1,B2,v[3],mu1,mu2,lag,halflag,deg45,Jv; //u[3],
CComplex **Mu,*V_sdi,*V_old;
double c=PI*4.e-05;
double units[]= {2.54,0.1,1.,100.,0.00254,1.e-04};
CElement *El;
int LinearFlag=TRUE;
int SDIflag=FALSE;
res=0;
// #ifndef NEWTON
CComplex murel,muinc;
// #else
CComplex Mnh[3][3];
CComplex Mna[3][3];
CComplex Mns[3][3];
// #endif
extRo*=units[LengthUnits];
extRi*=units[LengthUnits];
extZo*=units[LengthUnits];
deg45=1+I;
w=Frequency*2.*PI;
CComplex *CircInt1,*CircInt2,*CircInt3;
// Can't handle LamType==1 or LamType==2 in AC problems.
// Detect if this is being attempted.
for(i=0; i<NumEls; i++)
{
if( (blockproplist[meshele[i].blk].LamType==1) ||
(blockproplist[meshele[i].blk].LamType==2) )
{
WarnMessage("On-edge lamination not supported in AC analyses");
return FALSE;
}
}
// Go through and evaluate permeability for regions subject to prox effects
for(i=0; i<NumBlockLabels; i++) GetFillFactor(i);
V_old=(CComplex *) calloc(NumNodes+NumCircProps,sizeof(CComplex));
// check to see if any circuits have been defined and process them;
if (NumCircProps>0)
{
CircInt1=(CComplex *)calloc(NumCircProps,sizeof(CComplex));
CircInt2=(CComplex *)calloc(NumCircProps,sizeof(CComplex));
CircInt3=(CComplex *)calloc(NumCircProps,sizeof(CComplex));
for(i=0; i<NumEls; i++)
{
if(meshele[i].lbl>=0)
if(labellist[meshele[i].lbl].InCircuit!=-1)
{
El=&meshele[i];
// get element area;
for(k=0; k<3; k++) n[k]=El->p[k];
p[0]=meshnode[n[1]].y - meshnode[n[2]].y;
p[1]=meshnode[n[2]].y - meshnode[n[0]].y;
p[2]=meshnode[n[0]].y - meshnode[n[1]].y;
q[0]=meshnode[n[2]].x - meshnode[n[1]].x;
q[1]=meshnode[n[0]].x - meshnode[n[2]].x;
q[2]=meshnode[n[1]].x - meshnode[n[0]].x;
a=(p[0]*q[1]-p[1]*q[0])/2.;
r=(meshnode[n[0]].x+meshnode[n[1]].x+meshnode[n[2]].x)/3.;
// if coils are wound, they act like they have
// a zero "bulk" conductivity...
Cduct=blockproplist[El->blk].Cduct;
if (labellist[El->lbl].bIsWound) Cduct=0;
// evaluate integrals;
// total cross-section of circuit;
CircInt1[labellist[El->lbl].InCircuit]+=a;
// integral of conductivity / R over the circuit;
CircInt2[labellist[El->lbl].InCircuit]+=a*Cduct/(0.01*r);
// integral of applied J over current;
CircInt3[labellist[El->lbl].InCircuit]+=
(blockproplist[El->blk].Jr+I*blockproplist[El->blk].Ji)*a*100.;
}
}
for(i=0; i<NumCircProps; i++)
{
if (circproplist[i].CircType==0) // specified current
{
if(CircInt2[i]==0) //circuit composed of zero cond. materials
{
circproplist[i].Case=1;
if (CircInt1[i]==0.) circproplist[i].J=0.;
else circproplist[i].J=0.01*(
(circproplist[i].Amps_re+I*circproplist[i].Amps_im) -
CircInt3[i])/CircInt1[i];
}
else
{
circproplist[i].Case=2; // need to include an extra
// entry in matrix to solve for
// voltage grad in the circuit
}
}
else
{
// case where voltage gradient is specified a priori...
circproplist[i].Case=0;
circproplist[i].dV=circproplist[i].dVolts_re +
I*circproplist[i].dVolts_im;
}
}
}
// check to see if there are any SDI boundaries...
// lineproplist[ meshele[i].e[j] ].BdryFormat==0
for(i=0; i<NumLineProps; i++)
if(lineproplist[i].BdryFormat==3) SDIflag=TRUE;
if(SDIflag==TRUE)
{
// there is an SDI boundary defined; check to see if it is in use
SDIflag=FALSE;
for(i=0; i<NumEls; i++)
for(j=0; j<3; j++)
if (lineproplist[meshele[i].e[j]].BdryFormat==3)
{
SDIflag=TRUE;
printf("Problem has SDI boundaries\n");
i=NumEls;
j=3;
}
}
if (SDIflag==TRUE)
{
V_sdi=(CComplex *) calloc(NumNodes+NumCircProps,sizeof(CComplex));
sdin=2;
}
else sdin=1;
// compute effective permeability for each block type;
Mu=(CComplex **)calloc(NumBlockProps,sizeof(CComplex *));
for(i=0; i<NumBlockProps; i++) Mu[i]=(CComplex *)calloc(2,sizeof(CComplex));
for(k=0; k<NumBlockProps; k++)
{
if (blockproplist[k].LamType==0)
{
Mu[k][0]=blockproplist[k].mu_x*exp(-I*blockproplist[k].Theta_hx*PI/180.);
Mu[k][1]=blockproplist[k].mu_y*exp(-I*blockproplist[k].Theta_hy*PI/180.);
if(blockproplist[k].Lam_d!=0)
{
if (blockproplist[k].Cduct != 0)
{
halflag=exp(-I*blockproplist[k].Theta_hx*PI/360.);
ds=sqrt(2./(0.4*PI*w*blockproplist[k].Cduct*blockproplist[k].mu_x));
K=halflag*deg45*blockproplist[k].Lam_d*0.001/(2.*ds);
Mu[k][0]=((Mu[k][0]*tanh(K))/K)*blockproplist[k].LamFill +
(1.-blockproplist[k].LamFill);
halflag=exp(-I*blockproplist[k].Theta_hy*PI/360.);
ds=sqrt(2./(0.4*PI*w*blockproplist[k].Cduct*blockproplist[k].mu_y));
K=halflag*deg45*blockproplist[k].Lam_d*0.001/(2.*ds);
Mu[k][1]=((Mu[k][1]*tanh(K))/K)*blockproplist[k].LamFill +
(1.-blockproplist[k].LamFill);
}
else
{
Mu[k][0]=Mu[k][0]*blockproplist[k].LamFill +
(1.- blockproplist[k].LamFill);
Mu[k][1]=Mu[k][1]*blockproplist[k].LamFill +
(1. - blockproplist[k].LamFill);
}
}
}
else
{
Mu[k][0]=1;
Mu[k][1]=1;
}
}
do
{
for(sdi_iter=0; sdi_iter<sdin; sdi_iter++)
{
// TheView->SetDlgItemText(IDC_FRAME1,"Matrix Construction");
// TheView->m_prog1.SetPos(0);
printf("Matrix Construction\n");
pctr=0;
if (Iter>0) L.Wipe();
// build element matrices using the matrices derived in Allaire's book.
for(i=0; i<NumEls; i++)
{
// update ``building matrix'' progress bar...
j=(i*20)/NumEls+1;
if(j>pctr)
{
j=pctr*5;
if (j>100) j=100;
// TheView->m_prog1.SetPos(j);
pctr++;
}
// zero out Me, be;
for(j=0; j<3; j++)
{
for(k=0; k<3; k++)
{
Me[j][k]=0;
Mx[j][k]=0;
My[j][k]=0;
Mn[j][k]=0;
// #ifdef NEWTON
if (ACSolver==1)
{
Mnh[j][k]=0;
Mna[j][k]=0;
Mns[j][k]=0;
}
// #endif
}
be[j]=0;
}
// Determine shape parameters.
// l == element side lengths;
// p corresponds to the `b' parameter in Allaire
// q corresponds to the `c' parameter in Allaire
El=&meshele[i];
for(k=0; k<3; k++)
{
n[k]=El->p[k];
rn[k]=meshnode[n[k]].x;
}
p[0]=meshnode[n[1]].y - meshnode[n[2]].y;
p[1]=meshnode[n[2]].y - meshnode[n[0]].y;
p[2]=meshnode[n[0]].y - meshnode[n[1]].y;
q[0]=meshnode[n[2]].x - meshnode[n[1]].x;
q[1]=meshnode[n[0]].x - meshnode[n[2]].x;
q[2]=meshnode[n[1]].x - meshnode[n[0]].x;
g[0]=(meshnode[n[2]].x + meshnode[n[1]].x)/2.;
g[1]=(meshnode[n[0]].x + meshnode[n[2]].x)/2.;
g[2]=(meshnode[n[1]].x + meshnode[n[0]].x)/2.;
for(j=0,k=1; j<3; k++,j++)
{
if (k==3) k=0;
l[j]=sqrt( pow(meshnode[n[k]].x-meshnode[n[j]].x,2.) +
pow(meshnode[n[k]].y-meshnode[n[j]].y,2.) );
}
a=(p[0]*q[1]-p[1]*q[0])/2.;
R=(meshnode[n[0]].x+meshnode[n[1]].x+meshnode[n[2]].x)/3.;
for(j=0,a_hat=0; j<3; j++) a_hat+=(rn[j]*rn[j]*p[j]/(4.*R));
vol=2.*R*a_hat;
for(j=0,flag=0; j<3; j++) if(rn[j]<1.e-06) flag++;
switch(flag)
{
case 2:
R_hat=R;
break;
case 1:
if(rn[0]<1.e-06)
{
if (fabs(rn[1]-rn[2])<1.e-06) R_hat=rn[2]/2.;
else R_hat=(rn[1] - rn[2])/(2.*log(rn[1]) - 2.*log(rn[2]));
}
if(rn[1]<1.e-06)
{
if (fabs(rn[2]-rn[0])<1.e-06) R_hat=rn[0]/2.;
else R_hat=(rn[2] - rn[0])/(2.*log(rn[2]) - 2.*log(rn[0]));
}
if(rn[2]<1.e-06)
{
if (fabs(rn[0]-rn[1])<1.e-06) R_hat=rn[1]/2.;
else R_hat=(rn[0] - rn[1])/(2.*log(rn[0]) - 2.*log(rn[1]));
}
break;
default:
if (fabs(q[0])<1.e-06)
R_hat=(q[1]*q[1])/(2.*(-q[1] + rn[0]*log(rn[0]/rn[2])));
else if (fabs(q[1])<1.e-06)
R_hat=(q[2]*q[2])/(2.*(-q[2] + rn[1]*log(rn[1]/rn[0])));
else if (fabs(q[2])<1.e-06)
R_hat=(q[0]*q[0])/(2.*(-q[0] + rn[2]*log(rn[2]/rn[1])));
else
R_hat=-(q[0]*q[1]*q[2])/
(2.*(q[0]*rn[0]*log(rn[0]) +
q[1]*rn[1]*log(rn[1]) +
q[2]*rn[2]*log(rn[2])));
break;
}
// Mr Contribution
// Derived from flux formulation with c0 + c1 r^2 + c2 z
// interpolation in the element.
K=(-1./(2.*a_hat*R));
for(j=0; j<3; j++)
for(k=j; k<3; k++)
Mx[j][k] += K*p[j]*rn[j]*p[k]*rn[k];
// need this loop to avoid singularities. This just puts something
// on the main diagonal of nodes that are on the r=0 line.
// The program later sets these nodes to zero, but it's good to
// for scaling reasons to grab entries from the neighboring diagonals
// rather than just setting these entries to 1 or something....
for(j=0; j<3; j++)
if (rn[j]<1.e-06) Mx[j][j]+=Mx[0][0]+Mx[1][1]+Mx[2][2];
// Mz Contribution;
// Derived from flux formulation with c0 + c1 r^2 + c2 z
// interpolation in the element.
K=(-1./(2.*a_hat*R_hat));
for(j=0; j<3; j++)
for(k=j; k<3; k++)
My[j][k] += K*(q[j]*rn[j])*(q[k]*rn[k])*
(g[j]/R)*(g[k]/R);
// Fill out rest of entries of Mx and My;
Mx[1][0]=Mx[0][1];
Mx[2][0]=Mx[0][2];
Mx[2][1]=Mx[1][2];
My[1][0]=My[0][1];
My[2][0]=My[0][2];
My[2][1]=My[1][2];
// contribution from eddy currents;
// induced current interpolated as constant (avg. of nodal values)
// over the entire element;
K = -I*R*a*w*blockproplist[meshele[i].blk].Cduct*c/6.;
// radially laminated blocks appear to have no conductivity;
// eddy currents are accounted for in these elements by their
// frequency-dependent permeability.
if((blockproplist[El->blk].LamType==0) &&
(blockproplist[El->blk].Lam_d>0)) K=0;
// if this element is part of a wound coil,
// it should have a zero "bulk" conductivity...
if(labellist[El->lbl].bIsWound) K=0;
for(j=0; j<3; j++)
for(k=0; k<3; k++)
Me[j][k]+=K*4./3.;
// contributions to Me, be from derivative boundary conditions;
for(j=0; j<3; j++)
{
k=j+1;
if(k==3) k=0;
r=(meshnode[n[j]].x+meshnode[n[k]].x)/2.;
if (El->e[j] >= 0)
{
if (lineproplist[El->e[j]].BdryFormat==2)
{
// conversion factor is 10^(-4) (I think...)
K = -0.0001*c*2.*r*lineproplist[ El->e[j] ].c0*l[j]/6.;
Me[j][j]+=2*K;
Me[k][k]+=2*K;
Me[j][k]+=K;
Me[k][j]+=K;
K = (lineproplist[ El->e[j] ].c1*l[j]/2.)*2.*r*0.0001;
be[j]+=K;
be[k]+=K;
}
if (lineproplist[El->e[j]].BdryFormat==1)
{
ds=sqrt(2./(0.4*PI*w*lineproplist[El->e[j]].Sig*
lineproplist[El->e[j]].Mu));
K=deg45/(-ds*lineproplist[El->e[j]].Mu*100.);
K*=(2.*r*l[j]/6.);
Me[j][j]+=2*K;
Me[k][k]+=2*K;
Me[j][k]+=K;
Me[k][j]+=K;
}
}
}
// contribution to be from current density in the block
for(j=0; j<3; j++)
{
Jv=0;
if(labellist[El->lbl].InCircuit>=0)
{
k=labellist[El->lbl].InCircuit;
if(circproplist[k].Case==1) Jv=circproplist[k].J;
if(circproplist[k].Case==0)
Jv=-100.*circproplist[k].dV*
blockproplist[El->blk].Cduct/R;
}
K=-2.*R*(blockproplist[El->blk].Jr+I*blockproplist[El->blk].Ji+Jv)*a/3.;
be[j]+=K;
if(labellist[El->lbl].InCircuit>=0)
{
k=labellist[El->lbl].InCircuit;
if(circproplist[k].Case==2)
L.b[NumNodes+k]+=K/R;
}
}
// do Case 2 circuit stuff for element
if(labellist[El->lbl].InCircuit>=0)
{
k=labellist[El->lbl].InCircuit;
if(circproplist[k].Case==2)
{
K=-2.*I*a*w*blockproplist[meshele[i].blk].Cduct*c;
for(j=0; j<3; j++)
L.Put(L.Get(n[j],NumNodes+k)+K/3.,n[j],NumNodes+k);
L.Put(L.Get(NumNodes+k,NumNodes+k)+K/R,NumNodes+k,NumNodes+k);
}
}
/////////////////////////
//
// Nonlinear Stuff
//
/////////////////////////
// update permeability for the element;
if (Iter==0)
{
k=meshele[i].blk;
if (blockproplist[k].BHpoints != 0) LinearFlag=FALSE;
meshele[i].mu1=Mu[k][0];
meshele[i].mu2=Mu[k][1];
}
else
{
k=meshele[i].blk;
if ((blockproplist[k].LamType==0) &&
(meshele[i].mu1==meshele[i].mu2)
&&(blockproplist[k].BHpoints>0))
{
// Derive B directly from energy;
v[0]=0;
v[1]=0;
v[2]=0;
for(j=0; j<3; j++)
for(ww=0; ww<3; ww++)
v[j]+=(Mx[j][ww]+My[j][ww])*L.V[n[ww]];
for(j=0,dv=0; j<3; j++) dv+=conj(L.V[n[j]])*v[j];
dv*=(10000.*c*c/vol);
B=sqrt(abs(dv));
// #ifdef NEWTON
if (ACSolver==1)
{
// find out new mu from saturation curve;
blockproplist[k].GetBHProps(B,mu,dv);
mu=1./(muo*mu);
meshele[i].mu1=mu;
meshele[i].mu2=mu;
for(j=0; j<3; j++)
{
for(ww=0,v[j]=0; ww<3; ww++)
v[j]+=(Mx[j][ww]+My[j][ww])*L.V[n[ww]];
}
// Newton iteration
K=-200.*c*c*c*dv/vol;
for(j=0; j<3; j++)
for(ww=0; ww<3; ww++)
{
// Still compute Mn, the approximate N-R matrix used in
// the complex-symmetric approx. This will be useful
// w.r.t. preconditioning. However, subtract it off of Mnh and Mna
// so that there is no net addition.
Mn[j][ww] =K*Re(v[j]*conj(v[ww]));
Mnh[j][ww]= 0.5*Re(K)*v[j]*conj(v[ww])-Re(Mn[j][ww]);
Mna[j][ww]=I*0.5*Im(K)*v[j]*conj(v[ww])-I*Im(Mn[j][ww]);
Mns[j][ww]= 0.5*K*v[j]*v[ww];
}
}
// #else
else
{
// find out new mu from saturation curve;
murel=1./(muo*blockproplist[k].Get_v(B));
muinc=1./(muo*blockproplist[k].GetdHdB(B));
// successive approximation;
// K=muinc; // total incremental
// K=murel; // total updated
K=2.*murel*muinc/(murel+muinc); // averaged
meshele[i].mu1=K;
meshele[i].mu2=K;
K=-(1./murel - 1/K);
for(j=0; j<3; j++)
for(ww=0; ww<3; ww++)
Mn[j][ww]=K*(Mx[j][ww]+My[j][ww]);
}
// #endif
}
}
// Apply correction for elements subject to prox effects
if((blockproplist[meshele[i].blk].LamType>2) && (Iter==0) && (sdi_iter==0))
{
meshele[i].mu1=labellist[meshele[i].lbl].ProximityMu;
meshele[i].mu2=labellist[meshele[i].lbl].ProximityMu;
}
// "Warp" the permeability of this element if part of
// the conformally mapped external region
if((labellist[meshele[i].lbl].IsExternal) && (Iter==0) && (sdi_iter==0))
{
double Z=(meshnode[n[0]].y+meshnode[n[1]].y+meshnode[n[2]].y)/3. - extZo;
double kludge=(R*R+Z*Z)*extRi/(extRo*extRo*extRo);
meshele[i].mu1/=kludge;
meshele[i].mu2/=kludge;
}
// combine block matrices into global matrices;
for(j=0; j<3; j++)
for(k=0; k<3; k++)
{
//#ifdef NEWTON
if (ACSolver==1)
{
Me[j][k]+= (Mx[j][k]/(El->mu2) + My[j][k]/(El->mu1) + Mn[j][k]);
be[j]+=(Mnh[j][k]+Mna[j][k]+Mn[j][k])*L.V[n[k]];
be[j]+=Mns[j][k]*L.V[n[k]].Conj();
}
//#else
else
{
Me[j][k]+= (Mx[j][k]/(El->mu2) + My[j][k]/(El->mu1));
be[j]+=Mn[j][k]*L.V[n[k]];
}
//#endif
}
for (j=0; j<3; j++)
{
for (k=j; k<3; k++)
{
L.Put(L.Get(n[j],n[k])+Me[j][k],n[j],n[k]);
//#ifdef NEWTON
if (ACSolver==1)
{
if (Mnh[j][k]!=0) L.Put(L.Get(n[j],n[k],1) + Mnh[j][k],n[j],n[k],1);
if (Mns[j][k]!=0) L.Put(L.Get(n[j],n[k],2) + Mns[j][k],n[j],n[k],2);
if (Mna[j][k]!=0) L.Put(L.Get(n[j],n[k],3) + Mna[j][k],n[j],n[k],3);
}
//#endif
}
L.b[n[j]]+=be[j];
}
///////////////////////////////////////////////////
}
// add in contribution from point currents;
for(i=0; i<NumNodes; i++)
if(meshnode[i].bc>=0)
{
r=meshnode[i].x;
K = (2.*r*0.01)*(nodeproplist[meshnode[i].bc].Jr +
I*nodeproplist[meshnode[i].bc].Ji);
L.b[i]-=K;
}
// add in total current constraints for circuits;
for(i=0; i<NumCircProps; i++)
if (circproplist[i].Case==2)
{
L.b[NumNodes+i]+=2.*0.01*(circproplist[i].Amps_re +
I*circproplist[i].Amps_im);
}
// apply fixed boundary conditions at points;
for(i=0; i<NumNodes; i++)
if(meshnode[i].x<(units[LengthUnits]*1.e-06))
{
K=0;
L.SetValue(i,K);
}
else if(meshnode[i].bc >=0)
if((nodeproplist[meshnode[i].bc].Jr==0) &&
(nodeproplist[meshnode[i].bc].Ji==0) && (sdi_iter==0))
{
K = (nodeproplist[meshnode[i].bc].Ar
+ I*nodeproplist[meshnode[i].bc].Ai) / c;
L.SetValue(i,K);
}
// apply fixed boundary conditions along segments;
for(i=0; i<NumEls; i++)
for(j=0; j<3; j++)
{
k=j+1;
if(k==3) k=0;
if(meshele[i].e[j]>=0)
if(lineproplist[ meshele[i].e[j] ].BdryFormat==0)
{
if(Coords==0)
{
// first point on the side;
x=meshnode[meshele[i].p[j]].x;
y=meshnode[meshele[i].p[j]].y;
x/=units[LengthUnits];
y/=units[LengthUnits];
s=meshele[i].e[j];
a=lineproplist[s].A0 + x*lineproplist[s].A1 +
y*lineproplist[s].A2;
K=(a/c)*exp(I*lineproplist[s].phi*DEG);
L.SetValue(meshele[i].p[j],K);
// second point on the side;
x=meshnode[meshele[i].p[k]].x;
y=meshnode[meshele[i].p[k]].y;
x/=units[LengthUnits];
y/=units[LengthUnits];
s=meshele[i].e[j];
a=lineproplist[s].A0 + x*lineproplist[s].A1 +
y*lineproplist[s].A2;
K=(a/c)*exp(I*lineproplist[s].phi*DEG);
L.SetValue(meshele[i].p[k],K);
}
else
{
// first point on the side;
x=meshnode[meshele[i].p[j]].x;
y=meshnode[meshele[i].p[j]].y;
r=sqrt(x*x+y*y);
if ((x==0) && (y==0)) t=0;
else t=atan2(y,x)/DEG;
r/=units[LengthUnits];
s=meshele[i].e[j];
a=lineproplist[s].A0 + r*lineproplist[s].A1 +
t*lineproplist[s].A2;
K=(a/c)*exp(I*lineproplist[s].phi*DEG);
L.SetValue(meshele[i].p[j],K);
// second point on the side;
x=meshnode[meshele[i].p[k]].x;
y=meshnode[meshele[i].p[k]].y;
r=sqrt(x*x+y*y);
if((x==0) && (y==0)) t=0;
else t=atan2(y,x)/DEG;
r/=units[LengthUnits];
s=meshele[i].e[j];
a=lineproplist[s].A0 + r*lineproplist[s].A1 +
t*lineproplist[s].A2;
K=(a/c)*exp(I*lineproplist[s].phi*DEG);
L.SetValue(meshele[i].p[k],K);
}
}
}
if ((SDIflag==TRUE) && (sdi_iter==1)) for(i=0; i<NumEls; i++)
for(j=0; j<3; j++)
{
k=j+1;
if(k==3) k=0;
if(meshele[i].e[j]>=0)
if(lineproplist[ meshele[i].e[j] ].BdryFormat==3)
{
L.SetValue(meshele[i].p[j],0.*I);
L.SetValue(meshele[i].p[k],0.*I);
}
}
// "fix" diagonal entries associated with circuits that have
// applied current or voltage that is known a priori
// so that solver doesn't throw a "singular" flag
for(j=0; j<NumCircProps; j++)
if (circproplist[j].Case<2) L.Put(L.Get(0,0),NumNodes+j,NumNodes+j);
for(k=0; k<NumPBCs; k++)
{
if (pbclist[k].t==0) L.Periodicity(pbclist[k].x,pbclist[k].y);
if (pbclist[k].t==1) L.AntiPeriodicity(pbclist[k].x,pbclist[k].y);
}
// solve the problem;
if (SDIflag==FALSE) for(j=0; j<NumNodes+NumCircProps; j++) V_old[j]=L.V[j];
else
{
if(sdi_iter==0)
for(j=0; j<NumNodes+NumCircProps; j++) V_sdi[j]=L.V[j];
else
for(j=0; j<NumNodes+NumCircProps; j++)
{
V_old[j]=V_sdi[j];
V_sdi[j]=L.V[j];
}
}
if (L.bNewton)
{
L.Precision=std::min(1.e-4,0.001*res);
if (L.Precision<Precision) L.Precision=Precision;
}
if (L.PBCGSolveMod(Iter+sdi_iter)==FALSE) return FALSE;
if(sdi_iter==1)
for(j=0; j<NumNodes+NumCircProps; j++) L.V[j]=(V_sdi[j]+L.V[j])/2.;
} //end of SDI loop;
if (LinearFlag==FALSE)
{
for(j=0,x=0,y=0; j<NumNodes; j++)
{
x+=Re((L.V[j]-V_old[j])*conj(L.V[j]-V_old[j]));
y+=Re(L.V[j]*conj(L.V[j]));
}
if (y==0) LinearFlag=TRUE;
else
{
lastres=res;
res=sqrt(x/y);
}
// relaxation if we need it
if(Iter>5)
{
if ((res>lastres) && (Relax>0.1)) Relax/=2.;
else Relax+= 0.1 * (1. - Relax);
for(j=0; j<NumNodes+NumCircProps; j++) L.V[j]=Relax*L.V[j]+(1.0-Relax)*V_old[j];
}
// report some results
char outstr[256];
//#ifdef NEWTON
if(ACSolver==1) sprintf(outstr,"Newton Iteration(%i) Relax=%.4g\n",Iter,Relax);
//#else
else sprintf(outstr,"Successive Approx(%i) Relax=%.4g\n",Iter,Relax);
//#endif
// TheView->SetDlgItemText(IDC_FRAME2,outstr);
printf("%s\n", outstr);
j=(int) (100.*log10(res)/(log10(Precision)+2.));
if (j>100) j=100;
// TheView->m_prog2.SetPos(j);
}
// nonlinear iteration has to have a looser tolerance
// than the linear solver--otherwise, things can't ever
// converge. Arbitrarily choose 100*tolerance.
if((res<100.*Precision) && Iter>0) LinearFlag=TRUE;
Iter++;
}
while(LinearFlag==FALSE);
// convert answer back to webers
for (i=0; i<NumNodes; i++) L.b[i]=L.V[i]*c*2.*PI*meshnode[i].x*0.01;
for (i=0; i<NumCircProps; i++)
L.b[NumNodes+i]=(I*w*c*0.01*L.V[NumNodes+i]);
// free up space allocated in this routine
for(k=0; k<NumBlockProps; k++) free(Mu[k]);
free(Mu);
free(V_old);
if (SDIflag==TRUE) free(V_sdi);
if(NumCircProps>0)
{
free(CircInt1);
free(CircInt2);
free(CircInt3);
}
return TRUE;
}
Arbin Re(Arbin n){
if(jeton=='+'){
printf("Re->+TRe\n");
AVANCER
return construire('+',n,Re(T()));
}
void CbelaviewDoc::LineIntegral(int inttype, double *z)
{
// inttype Integral
// 0 E.t
// 1 D.n
// 2 Contour length
// 3 Stress Tensor Force
// 4 Stress Tensor Torque
// inttype==0 => E.t
if(inttype==0){
CPointVals u;
int k;
k=(int) contour.GetSize();
GetPointValues(contour[0].re,contour[0].im, u);
z[0] = u.V;
GetPointValues(contour[k-1].re,contour[k-1].im,u);
z[0]-= u.V;
}
// inttype==1 => D.n
if(inttype==1){
CComplex n,t,pt;
CPointVals v;
double dz,u,d,Dn;
int i,j,k,m,elm;
int NumPlotPoints=d_LineIntegralPoints;
BOOL flag;
z[0]=0;
z[1]=0;
for(k=1;k<contour.GetSize();k++)
{
dz=abs(contour[k]-contour[k-1])/((double) NumPlotPoints);
for(i=0,elm=-1;i<NumPlotPoints;i++)
{
u=(((double) i)+0.5)/((double) NumPlotPoints);
pt=contour[k-1] + u*(contour[k] - contour[k-1]);
t=contour[k]-contour[k-1];
t/=abs(t);
n=I*t;
pt+=n*1.e-06;
if (elm<0) elm=InTriangle(pt.re,pt.im);
else if (InTriangleTest(pt.re,pt.im,elm)==FALSE)
{
flag=FALSE;
for(j=0;j<3;j++)
for(m=0;m<NumList[meshelem[elm].p[j]];m++)
{
elm=ConList[meshelem[elm].p[j]][m];
if (InTriangleTest(pt.re,pt.im,elm)==TRUE)
{
flag=TRUE;
m=100;
j=3;
}
}
if (flag==FALSE) elm=InTriangle(pt.re,pt.im);
}
if(elm>=0)
flag=GetPointValues(pt.re,pt.im,elm,v);
else flag=FALSE;
if(flag==TRUE){
Dn = Re(v.D/n);
if (ProblemType==AXISYMMETRIC)
d=2.*PI*pt.re*sq(LengthConv[LengthUnits]);
else
d=Depth*LengthConv[LengthUnits];
z[0]+=(Dn*dz*d);
z[1]+=dz*d;
}
}
}
z[1]=z[0]/z[1]; // Average D.n over the surface;
}
// inttype==2 => Contour Length
if(inttype==2){
int i,k;
k=(int) contour.GetSize();
for(i=0,z[0]=0;i<k-1;i++)
z[0]+=abs(contour[i+1]-contour[i]);
z[0]*=LengthConv[LengthUnits];
if(ProblemType==1){
for(i=0,z[1]=0;i<k-1;i++)
z[1]+=(PI*(contour[i].re+contour[i+1].re)*
abs(contour[i+1]-contour[i]));
z[1]*=pow(LengthConv[LengthUnits],2.);
}
else{
z[1]=z[0]*Depth;
}
}
// inttype==3 => Stress Tensor Force
if(inttype==3){
CComplex n,t,pt;
double Hn,Bn,BH,dF1,dF2;
CPointVals v;
double dz,dza,u;
int i,j,k,m,elm;
int NumPlotPoints=d_LineIntegralPoints;
BOOL flag;
for(i=0;i<4;i++) z[i]=0;
for(k=1;k<contour.GetSize();k++)
{
dz=abs(contour[k]-contour[k-1])/((double) NumPlotPoints);
for(i=0,elm=-1;i<NumPlotPoints;i++)
{
u=(((double) i)+0.5)/((double) NumPlotPoints);
pt=contour[k-1] + u*(contour[k] - contour[k-1]);
t=contour[k]-contour[k-1];
t/=abs(t);
n=I*t;
pt+=n*1.e-06;
if (elm<0) elm=InTriangle(pt.re,pt.im);
else if (InTriangleTest(pt.re,pt.im,elm)==FALSE)
{
flag=FALSE;
for(j=0;j<3;j++)
for(m=0;m<NumList[meshelem[elm].p[j]];m++)
{
elm=ConList[meshelem[elm].p[j]][m];
if (InTriangleTest(pt.re,pt.im,elm)==TRUE)
{
flag=TRUE;
m=100;
j=3;
}
}
if (flag==FALSE) elm=InTriangle(pt.re,pt.im);
}
if(elm>=0)
flag=GetPointValues(pt.re,pt.im,elm,v);
else flag=FALSE;
if(flag==TRUE)
{
Hn= Re(v.E/n);
Bn= Re(v.D/n);
BH= Re(v.D*conj(v.E));
dF1=v.E.re*Bn + v.D.re*Hn - n.re*BH;
dF2=v.E.im*Bn + v.D.im*Hn - n.im*BH;
dza=dz*LengthConv[LengthUnits];
if(ProblemType==1){
dza*=2.*PI*pt.re*LengthConv[LengthUnits];
dF1=0;
}
else dza*=Depth;
z[0]+=(dF1*dza/2.);
z[1]+=(dF2*dza/2.);
}
}
}
}
// inttype==4 => Stress Tensor Torque
if(inttype==4){
CComplex n,t,pt;
double Hn,Bn,BH,dF1,dF2,dT;
CPointVals v;
double dz,dza,u;
int i,j,k,m,elm;
int NumPlotPoints=d_LineIntegralPoints;
BOOL flag;
z[0]=z[1]=0;
for(k=1;k<contour.GetSize();k++)
{
dz=abs(contour[k]-contour[k-1])/((double) NumPlotPoints);
for(i=0,elm=-1;i<NumPlotPoints;i++)
{
u=(((double) i)+0.5)/((double) NumPlotPoints);
pt=contour[k-1]+ u*(contour[k] - contour[k-1]);
t=contour[k]-contour[k-1];
t/=abs(t);
n=I*t;
pt+=n*1.e-6;
if (elm<0) elm=InTriangle(pt.re,pt.im);
else if (InTriangleTest(pt.re,pt.im,elm)==FALSE)
{
flag=FALSE;
for(j=0;j<3;j++)
for(m=0;m<NumList[meshelem[elm].p[j]];m++)
{
elm=ConList[meshelem[elm].p[j]][m];
if (InTriangleTest(pt.re,pt.im,elm)==TRUE)
{
flag=TRUE;
m=100;
j=3;
}
}
if (flag==FALSE) elm=InTriangle(pt.re,pt.im);
}
if(elm>=0)
flag=GetPointValues(pt.re,pt.im,elm,v);
else flag=FALSE;
if(flag==TRUE)
{
Hn= Re(v.E/n);
Bn= Re(v.D/n);
BH= Re(v.D*conj(v.E));
dF1=v.E.re*Bn + v.D.re*Hn - n.re*BH;
dF2=v.E.im*Bn + v.D.im*Hn - n.im*BH;
dT= pt.re*dF2 - dF1*pt.im;
dza=dz*LengthConv[LengthUnits]*LengthConv[LengthUnits];
z[0]+=(dT*dza*Depth/2.);
}
}
}
}
return;
}
void CNE6SSM_high_scale_constraint<Two_scale>::apply()
{
assert(model && "Error: CNE6SSM_high_scale_constraint::apply():"
" model pointer must not be zero");
if (std::fabs(model->get_g1()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CNE6SSM_high_scale_constraint: Non-perturbative gauge "
"coupling g1 = " << model->get_g1());
#endif
model->set_g1(3.54491);
}
if (std::fabs(model->get_g2()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CNE6SSM_high_scale_constraint: Non-perturbative gauge "
"coupling g2 = " << model->get_g2());
#endif
model->set_g2(3.54491);
}
if (std::fabs(model->get_g3()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CNE6SSM_high_scale_constraint: Non-perturbative gauge "
"coupling g3 = " << model->get_g3());
#endif
model->set_g3(3.54491);
}
update_scale();
const auto MuPrInput = INPUTPARAMETER(MuPrInput);
const auto BMuPrInput = INPUTPARAMETER(BMuPrInput);
const auto MuPhiInput = INPUTPARAMETER(MuPhiInput);
const auto BMuPhiInput = INPUTPARAMETER(BMuPhiInput);
const auto SigmaLInput = INPUTPARAMETER(SigmaLInput);
const auto KappaPrInput = INPUTPARAMETER(KappaPrInput);
const auto SigmaxInput = INPUTPARAMETER(SigmaxInput);
const auto gDInput = INPUTPARAMETER(gDInput);
const auto hEInput = INPUTPARAMETER(hEInput);
const auto KappaInput = INPUTPARAMETER(KappaInput);
const auto Lambda12Input = INPUTPARAMETER(Lambda12Input);
const auto fuInput = INPUTPARAMETER(fuInput);
const auto fdInput = INPUTPARAMETER(fdInput);
const auto Azero = INPUTPARAMETER(Azero);
const auto m0 = INPUTPARAMETER(m0);
const auto m12 = INPUTPARAMETER(m12);
const auto g1 = MODELPARAMETER(g1);
const auto Ye = MODELPARAMETER(Ye);
const auto Yd = MODELPARAMETER(Yd);
const auto Yu = MODELPARAMETER(Yu);
const auto Lambdax = MODELPARAMETER(Lambdax);
MODEL->set_g1p(Re(g1));
MODEL->set_MuPr(Re(MuPrInput));
MODEL->set_BMuPr(Re(BMuPrInput));
MODEL->set_MuPhi(Re(MuPhiInput));
MODEL->set_BMuPhi(Re(BMuPhiInput));
MODEL->set_SigmaL(Re(SigmaLInput));
MODEL->set_KappaPr(Re(KappaPrInput));
MODEL->set_Sigmax(Re(SigmaxInput));
MODEL->set_gD((gDInput).real());
MODEL->set_hE((hEInput).real());
MODEL->set_Kappa((KappaInput).real());
MODEL->set_Lambda12((Lambda12Input).real());
MODEL->set_fu((fuInput).real());
MODEL->set_fd((fdInput).real());
MODEL->set_TYe((Azero*Ye).real());
MODEL->set_TYd((Azero*Yd).real());
MODEL->set_TYu((Azero*Yu).real());
MODEL->set_TKappaPr(Re(Azero*KappaPrInput));
MODEL->set_TSigmax(Re(Azero*SigmaxInput));
MODEL->set_ThE((Azero*hEInput).real());
MODEL->set_TSigmaL(Re(Azero*SigmaLInput));
MODEL->set_TgD((Azero*gDInput).real());
MODEL->set_Tfu((Azero*fuInput).real());
MODEL->set_Tfd((Azero*fdInput).real());
MODEL->set_TKappa((Azero*KappaInput).real());
MODEL->set_TLambda12((Azero*Lambda12Input).real());
MODEL->set_TLambdax(Re(Azero*Lambdax));
MODEL->set_mHd2(Re(Sqr(m0)));
MODEL->set_mHu2(Re(Sqr(m0)));
MODEL->set_ms2(Re(Sqr(m0)));
MODEL->set_msbar2(Re(Sqr(m0)));
MODEL->set_mphi2(Re(Sqr(m0)));
MODEL->set_mHp2(Re(Sqr(m0)));
MODEL->set_mHpbar2(Re(Sqr(m0)));
MODEL->set_mH1I2((Sqr(m0)*UNITMATRIX(2)).real());
MODEL->set_mH2I2((Sqr(m0)*UNITMATRIX(2)).real());
MODEL->set_mSI2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_mq2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_ml2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_md2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_mu2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_me2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_mDx2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_mDxbar2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_MassB(Re(m12));
MODEL->set_MassWB(Re(m12));
MODEL->set_MassG(Re(m12));
MODEL->set_MassBp(Re(m12));
{
const auto g1 = MODELPARAMETER(g1);
const auto g2 = MODELPARAMETER(g2);
const auto g3 = MODELPARAMETER(g3);
const auto g1p = MODELPARAMETER(g1p);
const auto Yd = MODELPARAMETER(Yd);
const auto hE = MODELPARAMETER(hE);
const auto Ye = MODELPARAMETER(Ye);
const auto SigmaL = MODELPARAMETER(SigmaL);
const auto KappaPr = MODELPARAMETER(KappaPr);
const auto Sigmax = MODELPARAMETER(Sigmax);
const auto gD = MODELPARAMETER(gD);
const auto Kappa = MODELPARAMETER(Kappa);
const auto Lambda12 = MODELPARAMETER(Lambda12);
const auto Lambdax = MODELPARAMETER(Lambdax);
const auto fu = MODELPARAMETER(fu);
const auto fd = MODELPARAMETER(fd);
const auto Yu = MODELPARAMETER(Yu);
if (MaxAbsValue(g1) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g1", MaxAbsValue(g1), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g1");
if (MaxAbsValue(g2) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g2", MaxAbsValue(g2), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g2");
if (MaxAbsValue(g3) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g3", MaxAbsValue(g3), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g3");
if (MaxAbsValue(g1p) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g1p", MaxAbsValue(g1p), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g1p");
if (MaxAbsValue(Yd) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Yd", MaxAbsValue(Yd), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Yd");
if (MaxAbsValue(hE) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("hE", MaxAbsValue(hE), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("hE");
if (MaxAbsValue(Ye) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Ye", MaxAbsValue(Ye), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Ye");
if (MaxAbsValue(SigmaL) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("SigmaL", MaxAbsValue(SigmaL), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("SigmaL");
if (MaxAbsValue(KappaPr) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("KappaPr", MaxAbsValue(KappaPr), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("KappaPr");
if (MaxAbsValue(Sigmax) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Sigmax", MaxAbsValue(Sigmax), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Sigmax");
if (MaxAbsValue(gD) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("gD", MaxAbsValue(gD), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("gD");
if (MaxAbsValue(Kappa) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Kappa", MaxAbsValue(Kappa), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Kappa");
if (MaxAbsValue(Lambda12) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Lambda12", MaxAbsValue(Lambda12), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Lambda12");
if (MaxAbsValue(Lambdax) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Lambdax", MaxAbsValue(Lambdax), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Lambdax");
if (MaxAbsValue(fu) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("fu", MaxAbsValue(fu), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("fu");
if (MaxAbsValue(fd) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("fd", MaxAbsValue(fd), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("fd");
if (MaxAbsValue(Yu) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Yu", MaxAbsValue(Yu), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Yu");
}
}
void CMSSM_high_scale_constraint<Two_scale>::apply()
{
assert(model && "Error: CMSSM_high_scale_constraint::apply():"
" model pointer must not be zero");
if (std::fabs(model->get_g1()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CMSSM_high_scale_constraint: Non-perturbative gauge "
"coupling g1 = " << model->get_g1());
#endif
model->set_g1(3.54491);
}
if (std::fabs(model->get_g2()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CMSSM_high_scale_constraint: Non-perturbative gauge "
"coupling g2 = " << model->get_g2());
#endif
model->set_g2(3.54491);
}
if (std::fabs(model->get_g3()) > 3.54491) {
#ifdef ENABLE_VERBOSE
ERROR("CMSSM_high_scale_constraint: Non-perturbative gauge "
"coupling g3 = " << model->get_g3());
#endif
model->set_g3(3.54491);
}
update_scale();
const auto Azero = INPUTPARAMETER(Azero);
const auto m0 = INPUTPARAMETER(m0);
const auto m12 = INPUTPARAMETER(m12);
const auto Ye = MODELPARAMETER(Ye);
const auto Yd = MODELPARAMETER(Yd);
const auto Yu = MODELPARAMETER(Yu);
MODEL->set_TYe((Azero*Ye).real());
MODEL->set_TYd((Azero*Yd).real());
MODEL->set_TYu((Azero*Yu).real());
MODEL->set_mHd2(Re(Sqr(m0)));
MODEL->set_mHu2(Re(Sqr(m0)));
MODEL->set_mq2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_ml2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_md2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_mu2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_me2((Sqr(m0)*UNITMATRIX(3)).real());
MODEL->set_MassB(Re(m12));
MODEL->set_MassWB(Re(m12));
MODEL->set_MassG(Re(m12));
{
const auto g1 = MODELPARAMETER(g1);
const auto g2 = MODELPARAMETER(g2);
const auto g3 = MODELPARAMETER(g3);
const auto Yd = MODELPARAMETER(Yd);
const auto Ye = MODELPARAMETER(Ye);
const auto Yu = MODELPARAMETER(Yu);
if (MaxAbsValue(g1) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g1", MaxAbsValue(g1), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g1");
if (MaxAbsValue(g2) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g2", MaxAbsValue(g2), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g2");
if (MaxAbsValue(g3) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("g3", MaxAbsValue(g3), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("g3");
if (MaxAbsValue(Yd) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Yd", MaxAbsValue(Yd), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Yd");
if (MaxAbsValue(Ye) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Ye", MaxAbsValue(Ye), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Ye");
if (MaxAbsValue(Yu) > 3.5449077018110318)
model->get_problems().flag_non_perturbative_parameter("Yu", MaxAbsValue(Yu), model->get_scale(), 3.5449077018110318);
else
model->get_problems().unflag_non_perturbative_parameter("Yu");
}
}
void CbelaviewDoc::GetLineValues(CXYPlot &p,int PlotType,int NumPlotPoints)
{
double *q,z,u,dz;
CComplex pt,n,t;
int i,j,k,m,elm;
CPointVals v;
BOOL flag;
q=(double *)calloc(contour.GetSize(),sizeof(double));
for(i=1,z=0.;i<contour.GetSize();i++)
{
z+=abs(contour[i]-contour[i-1]);
q[i]=z;
}
dz=z/(NumPlotPoints-1);
/*
m_XYPlotType.AddString("Potential");
m_XYPlotType.AddString("|B| (Magnitude of flux density)");
m_XYPlotType.AddString("B . n (Normal flux density)");
m_XYPlotType.AddString("B . t (Tangential flux density)");
m_XYPlotType.AddString("|H| (Magnitude of field intensity)");
m_XYPlotType.AddString("H . n (Normal field intensity)");
m_XYPlotType.AddString("H . t (Tangential field intensity)");
m_XYPlotType.AddString("J_eddy
*/
switch (PlotType)
{
case 0:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"Potential, Volts");
break;
case 1:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"|D|, C/m^2");
break;
case 2:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"D.n, C/m^2");
break;
case 3:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"D.t, C/m^2");
break;
case 4:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"|E|, V/m");
break;
case 5:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"E.n, V/m");
break;
case 6:
p.Create(NumPlotPoints,2);
strcpy(p.lbls[1],"E.t, V/m");
break;
default:
p.Create(NumPlotPoints,2);
break;
}
switch(LengthUnits){
case 1:
strcpy(p.lbls[0],"Length, mm");
break;
case 2:
strcpy(p.lbls[0],"Length, cm");
break;
case 3:
strcpy(p.lbls[0],"Length, m");
break;
case 4:
strcpy(p.lbls[0],"Length, mils");
break;
case 5:
strcpy(p.lbls[0],"Length, um");
break;
default:
strcpy(p.lbls[0],"Length, inches");
break;
}
for(i=0,k=1,z=0,elm=-1;i<NumPlotPoints;i++,z+=dz)
{
while((z>q[k]) && (k<(contour.GetSize()-1))) k++;
u=(z-q[k-1])/(q[k]-q[k-1]);
pt=contour[k-1]+u*(contour[k]-contour[k-1]);
t=contour[k]-contour[k-1];
t/=abs(t);
n = I*t;
pt+=(n*1.e-06);
if (elm<0) elm=InTriangle(pt.re,pt.im);
else if (InTriangleTest(pt.re,pt.im,elm)==FALSE)
{
flag=FALSE;
for(j=0;j<3;j++)
for(m=0;m<NumList[meshelem[elm].p[j]];m++)
{
elm=ConList[meshelem[elm].p[j]][m];
if (InTriangleTest(pt.re,pt.im,elm)==TRUE)
{
flag=TRUE;
m=100;
j=3;
}
}
if (flag==FALSE) elm=InTriangle(pt.re,pt.im);
}
if(elm>=0)
flag=GetPointValues(pt.re,pt.im,elm,v);
else flag=FALSE;
p.M[i][0]=z;
if(flag!=FALSE)
{
switch (PlotType)
{
case 0:
p.M[i][1]=v.V;
break;
case 1:
p.M[i][1]=abs(v.D);
break;
case 2:
p.M[i][1]=Re(v.D/n);
break;
case 3:
p.M[i][1]=Re(v.D/t);
break;
case 4:
p.M[i][1]=abs(v.E);
break;
case 5:
p.M[i][1]=Re(v.E/n);
break;
case 6:
p.M[i][1]=Re(v.E/t);
break;
default:
p.M[i][1]=0;
break;
}
}
}
free(q);
}
// expose restart2 to python
void read_solution(char * filename, mcomplex * C_ptr)
{
extern int qpts, dimR, dimQ, Nx, Nz;
extern mcomplex ****U, ****C;
extern mcomplex ****IU, ****IC;
int x, y, z;
hid_t file_id1, dataset_a, dataset_b; /* file identifier */
hid_t dataset_ia, dataset_ib;
hid_t complex_id;
/* define compound datatype for the complex number */
typedef struct {
double re; /*real part */
double im; /*imaginary part */
} complex_t;
complex_id = H5Tcreate(H5T_COMPOUND, sizeof(complex_t));
H5Tinsert(complex_id, "real", HOFFSET(complex_t, re),
H5T_NATIVE_DOUBLE);
H5Tinsert(complex_id, "imaginary", HOFFSET(complex_t, im),
H5T_NATIVE_DOUBLE);
/* define some temporal matrix to store the data to the hdf file */
complex_t Matrix1[dimR][Nz][Nx / 2];
complex_t Matrix2[dimR][Nz][Nx / 2];
complex_t IMatrix1[dimR][Nz][Nx / 2];
complex_t IMatrix2[dimR][Nz][Nx / 2];
// open the file and dataset
file_id1 = H5Fopen(filename, H5F_ACC_RDONLY, H5P_DEFAULT);
dataset_a = H5Dopen1(file_id1, "/data_alpha");
dataset_b = H5Dopen1(file_id1, "/data_beta");
dataset_ia = H5Dopen1(file_id1, "/data_ialpha");
dataset_ib = H5Dopen1(file_id1, "/data_ibeta");
assert(EXIT_SUCCESS ==
H5Dread(dataset_a, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT,
Matrix1));
assert(EXIT_SUCCESS ==
H5Dread(dataset_b, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT,
Matrix2));
assert(EXIT_SUCCESS ==
H5Dread(dataset_ia, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT,
IMatrix1));
assert(EXIT_SUCCESS ==
H5Dread(dataset_ib, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT,
IMatrix2));
assert(EXIT_SUCCESS == H5Dclose(dataset_a));
assert(EXIT_SUCCESS == H5Dclose(dataset_b));
assert(EXIT_SUCCESS == H5Dclose(dataset_ia));
assert(EXIT_SUCCESS == H5Dclose(dataset_ib));
assert(EXIT_SUCCESS == H5Fclose(file_id1));
for (y = 0; y < dimR; y++) {
for (z = 0; z < Nz; ++z) {
for (x = 0; x < Nx / 2; ++x) {
Re(C[z][ALPHA][y][x]) = Matrix1[y][z][x].re;
Im(C[z][ALPHA][y][x]) = Matrix1[y][z][x].im;
Re(C[z][BETA][y][x]) = Matrix2[y][z][x].re;
Im(C[z][BETA][y][x]) = Matrix2[y][z][x].im;
Re(IC[z][ALPHA][y][x]) = IMatrix1[y][z][x].re;
Im(IC[z][ALPHA][y][x]) = IMatrix1[y][z][x].im;
Re(IC[z][BETA][y][x]) = IMatrix2[y][z][x].re;
Im(IC[z][BETA][y][x]) = IMatrix2[y][z][x].im;
}
}
}
/* compute ux hat, uy hat, uz hat given alpha, beta,. */
initAlphaBeta2();
/* compute the boundary condition for previous stage or time step,
result is stored in Uxb and Uzb */
if (increBoundary() != NO_ERR) {
printf("increBoundary failure\n");
}
/* compute iux, iuy, iuz given i-alpha, i-beta */
incre_initAlphaBeta2();
memset(U[Nz / 2][0][0], 0, 5 * qpts * (Nx / 2) * sizeof(mcomplex));
memset(IU[Nz / 2][0][0], 0, 5 * qpts * (Nx / 2) * sizeof(mcomplex));
memmove(C_ptr, C[0][0][0], Nz * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
}
// expose write_data2 to python
void save_solution(char * filename, mcomplex * C_ptr)
{
hid_t file_id1, dataset_a, dataset_b; /* file identifier */
hid_t fid1, dataset_ia, dataset_ib;
hid_t fid2, dataset_Nx, dataset_Ny, dataset_Nz, dataset_dt, dataset_Re,
dataset_mpg;
hid_t complex_id;
hsize_t fdim[] = { dimR, Nz, Nx / 2 };
hsize_t fdim2[] = { 1 };
extern mcomplex ****C, ****IC;
extern int qpts, Nx, Nz, dimR, dimQ;
extern double dt, re, mpg;
int x, y, z;
int Ny = qpts * 2 / 3;
/* define compound datatype for the complex number */
typedef struct {
double re; /*real part */
double im; /*imaginary part */
} complex_t;
memmove(C[0][0][0], C_ptr, Nz * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
/* Compute U from C */
initAlphaBeta2();
complex_id = H5Tcreate(H5T_COMPOUND, sizeof(complex_t));
H5Tinsert(complex_id, "real", HOFFSET(complex_t, re),
H5T_NATIVE_DOUBLE);
H5Tinsert(complex_id, "imaginary", HOFFSET(complex_t, im),
H5T_NATIVE_DOUBLE);
/* define some temporal matrix to store the data to the hdf file */
complex_t Matrix1[dimR][Nz][Nx / 2];
complex_t Matrix2[dimR][Nz][Nx / 2];
complex_t IMatrix1[dimR][Nz][Nx / 2];
complex_t IMatrix2[dimR][Nz][Nx / 2];
for (y = 0; y < dimR; y++) {
for (z = 0; z < Nz; ++z) {
for (x = 0; x < Nx / 2; ++x) {
Matrix1[y][z][x].re = Re(C[z][ALPHA][y][x]); /* storing solved solutions to Matrix */
Matrix1[y][z][x].im = Im(C[z][ALPHA][y][x]);
Matrix2[y][z][x].re = Re(C[z][BETA][y][x]);
Matrix2[y][z][x].im = Im(C[z][BETA][y][x]);
IMatrix1[y][z][x].re = Re(IC[z][ALPHA][y][x]); /* storing solved solutions to Matrix */
IMatrix1[y][z][x].im = Im(IC[z][ALPHA][y][x]);
IMatrix2[y][z][x].re = Re(IC[z][BETA][y][x]);
IMatrix2[y][z][x].im = Im(IC[z][BETA][y][x]);
}
}
}
/* create File data.h5 for three data sets */
file_id1 =
H5Fcreate(filename, H5F_ACC_TRUNC, H5P_DEFAULT, H5P_DEFAULT);
/* create the dataspace */
fid1 = H5Screate_simple(3, fdim, NULL);
fid2 = H5Screate_simple(1, fdim2, NULL);
/* create datasets with name u v w */
dataset_a =
H5Dcreate1(file_id1, "/data_alpha", complex_id, fid1, H5P_DEFAULT);
dataset_b =
H5Dcreate1(file_id1, "/data_beta", complex_id, fid1, H5P_DEFAULT);
dataset_ia =
H5Dcreate1(file_id1, "/data_ialpha", complex_id, fid1,
H5P_DEFAULT);
dataset_ib =
H5Dcreate1(file_id1, "/data_ibeta", complex_id, fid1, H5P_DEFAULT);
dataset_Nx =
H5Dcreate1(file_id1, "data_Nx", H5T_STD_I32LE, fid2, H5P_DEFAULT);
dataset_Ny =
H5Dcreate1(file_id1, "data_Ny", H5T_STD_I32LE, fid2, H5P_DEFAULT);
dataset_Nz =
H5Dcreate1(file_id1, "data_Nz", H5T_STD_I32LE, fid2, H5P_DEFAULT);
dataset_dt =
H5Dcreate1(file_id1, "data_dt", H5T_IEEE_F64LE, fid2, H5P_DEFAULT);
dataset_Re =
H5Dcreate1(file_id1, "data_Re", H5T_IEEE_F64LE, fid2, H5P_DEFAULT);
dataset_mpg =
H5Dcreate1(file_id1, "data_mpg", H5T_IEEE_F64LE, fid2,
H5P_DEFAULT);
/* write data to corresponding datasets */
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_a, complex_id, H5S_ALL, fid1, H5P_DEFAULT,
Matrix1));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_b, complex_id, H5S_ALL, fid1, H5P_DEFAULT,
Matrix2));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_ia, complex_id, H5S_ALL, fid1, H5P_DEFAULT,
IMatrix1));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_ib, complex_id, H5S_ALL, fid1, H5P_DEFAULT,
IMatrix2));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_Nx, H5T_NATIVE_INT, H5S_ALL, fid2, H5P_DEFAULT,
&Nx));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_Ny, H5T_NATIVE_INT, H5S_ALL, fid2, H5P_DEFAULT,
&Ny));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_Nz, H5T_NATIVE_INT, H5S_ALL, fid2, H5P_DEFAULT,
&Nz));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_dt, H5T_IEEE_F64LE, H5S_ALL, fid2, H5P_DEFAULT,
&dt));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_Re, H5T_IEEE_F64LE, H5S_ALL, fid2, H5P_DEFAULT,
&re));
assert(EXIT_SUCCESS ==
H5Dwrite(dataset_mpg, H5T_IEEE_F64LE, H5S_ALL, fid2, H5P_DEFAULT,
&mpg));
/* close datasets and file */
assert(EXIT_SUCCESS == H5Dclose(dataset_a));
assert(EXIT_SUCCESS == H5Dclose(dataset_b));
assert(EXIT_SUCCESS == H5Dclose(dataset_ia));
assert(EXIT_SUCCESS == H5Dclose(dataset_ib));
assert(EXIT_SUCCESS == H5Dclose(dataset_Nx));
assert(EXIT_SUCCESS == H5Dclose(dataset_Ny));
assert(EXIT_SUCCESS == H5Dclose(dataset_Nz));
assert(EXIT_SUCCESS == H5Dclose(dataset_dt));
assert(EXIT_SUCCESS == H5Dclose(dataset_Re));
assert(EXIT_SUCCESS == H5Dclose(dataset_mpg));
assert(EXIT_SUCCESS == H5Sclose(fid1));
assert(EXIT_SUCCESS == H5Sclose(fid2));
assert(EXIT_SUCCESS == H5Fclose(file_id1));
}
double ddt_project(int i_step, mcomplex * IC_given)
{
mcomplex *dCdt;
double *dudt;
double *v;
double num, den;
int x, y, z, i;
int XFLOW, YFLOW, ZFLOW;
int len1 = (Nz * 2 * dimR * (Nx / 2));
int len2 = (3 * 3 * (Nx / 2) * qpts * 3 * (Nz /2));
int i_plus, i_minus;
// Allocate memory
dCdt = cVector(len1);
dudt = dVector(len2);
v = dVector(len2);
memset(dCdt, 0,
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
memset(dudt, 0,
3 * (3 * Nx / 2) * qpts * (3 * Nz / 2) * sizeof(double));
memset(v, 0,
3 * (3 * Nx / 2) * qpts * (3 * Nz / 2) * sizeof(double));
// compute time derivative with finite difference
if (i_step == 0) {
i_plus = 3*(i_step + 1);
i_minus = 3*i_step;
} else {
i_plus = 3*i_step;
i_minus = 3*(i_step - 1);
}
for (z = 0; z < (Nz) * 2 * dimR * (Nx / 2); ++ z) {
Re(dCdt[z]) = (1.0/dt) * (Re(MC[i_plus][0][0][0][z])-Re(MC[i_minus][0][0][0][z]));
Im(dCdt[z]) = (1.0/dt) * (Im(MC[i_plus][0][0][0][z])-Im(MC[i_minus][0][0][0][z]));
}
// find physical derivative, sensitivity
spec2phys(dCdt,dudt);
spec2phys(IC_given,v);
//compute numerator and denominator of projection
num = 0.0;
den = 0.0;
XFLOW = 0 * (3 * Nx / 2) * qpts * (3 * Nz / 2);
YFLOW = 1 * (3 * Nx / 2) * qpts * (3 * Nz / 2);
ZFLOW = 2 * (3 * Nx / 2) * qpts * (3 * Nz / 2);
for (y = 0; y < qpts; ++y){
for (z = 0; z < (3 * Nz / 2); ++z){
for (x = 0; x < (3 * Nx / 2); ++x){
i = (x * qpts + y) * (3 * Nz / 2) + z;
num += dudt[i + XFLOW] * v[i + XFLOW] * W[y];
den += dudt[i + XFLOW] * dudt[i + XFLOW] * W[y];
num += dudt[i + YFLOW] * v[i + YFLOW] * W[y];
den += dudt[i + YFLOW] * dudt[i + YFLOW] * W[y];
num += dudt[i + ZFLOW] * v[i + ZFLOW] * W[y];
den += dudt[i + ZFLOW] * dudt[i + ZFLOW] * W[y];
}
}
}
// subtract component of IC_given that is parallel to dCdt
for (z = 0; z < (Nz) * 2 * dimR * (Nx / 2); ++ z) {
Re(IC_given[z]) -= (num/den) * Re(dCdt[z]);
Im(IC_given[z]) -= (num/den) * Im(dCdt[z]);
}
// free memory
freecVector(dCdt);
freedVector(dudt);
freedVector(v);
return (num/den);
}
void adjoint(int start_step, int end_step, mcomplex *AC_given, int inhomo,
double strength)
{
int n, dctr, count, z;
mcomplex *ICtmp;
int len1 = (Nz * 2 * dimR * (Nx / 2));
ICtmp = cVector(len1);
/* retrieve solution */
assert (end_step < start_step);
assert (end_step >= 0);
assert (start_step <= nsteps);
assert (AC_given != 0);
memmove(C[0][0][0], MC[start_step * 3][0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
memmove(AC[0][0][0], AC_given,
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
/***************solving adjoint equations ****/
adj_initAlphaBeta2();
strength *= dt;
/* time step for adjoint problem */
for (n = start_step; n > end_step; --n) {
count = n * 3;
memmove(ICtmp, MIC[count][0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
ddt_project(n, ICtmp);
for (z = 0; z < (Nz) * 2 * dimR * (Nx / 2); ++ z) {
Re(AC[0][0][0][z]) -= 0.5 * strength * Re(ICtmp[z]);
Im(AC[0][0][0][z]) -= 0.5 * strength * Im(ICtmp[z]);
}
for (dctr = 0; dctr < 3; ++dctr) { /* RK steps */
count = n * 3 - dctr - 1;
/*read data from memery */
if (dctr < 2) {
memmove(C[0][0][0], MC[count - 1][0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
/* reconstruct the state and incremental state solution u,
iu from alpha and beta */
initAlphaBeta2();
if (pass2(dctr, n) != NO_ERR) {
printf("Pass2 failure\n");
n = -1;
break;
}
memmove(LU[0][0][0], U[0][0][0],
(Nz) * 5 * qpts * (Nx / 2) * sizeof(mcomplex));
}
/*read data from memery */
memmove(C[0][0][0], MC[count][0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
/*reconstruct the state and incremental state solution u,
iu from alpha and beta */
initAlphaBeta2();
if (pass2(dctr, n) != NO_ERR) {
printf("Pass2 failure\n");
n = -1;
break;
}
adjproject0(count, dctr, NULL);
adjproject(count, dctr, 0, 1, NULL);
for (z = 1; z < Nz; ++z) {
if (z == Nz / 2) {
memset(AU[z][0][0], 0,
5 * qpts * (Nx / 2) * sizeof(mcomplex));
memset(AC[z][0][0], 0,
2 * dimR * (Nx / 2) * sizeof(mcomplex));
continue;
}
adjproject(count, dctr, z, 0, NULL);
}
}
count = (n - 1) * 3;
memmove(ICtmp, MIC[count][0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
ddt_project(n-1, ICtmp);
for (z = 0; z < (Nz) * 2 * dimR * (Nx / 2); ++ z) {
Re(AC[0][0][0][z]) -= 0.5 * strength * Re(ICtmp[z]);
Im(AC[0][0][0][z]) -= 0.5 * strength * Im(ICtmp[z]);
}
}
memmove(AC_given, AC[0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
freecVector( ICtmp );
}
void primal(int ru_steps, mcomplex *C_given)
{
int i, n, z, dctr, count;
/******************restart check ******************************/
if (C_given != 0) {
memmove(C[0][0][0], C_given,
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
initAlphaBeta2();
}
else // provide laminar solution with perturbations
{
memset(U[0][0][0], 0, Nz * 5 * qpts * Nx / 2 * sizeof(mcomplex));
for (i = 0; i < qpts; i++) {
Re(U[0][XEL][i][0]) = (1.0 - Qy[i] * Qy[i]) * flux * 3./4;
Im(U[0][XEL][i][0]) = 0.0;
}
// perturbation
for (i = 0; i < qpts; i++) {
Re(U[1][XEL][i][1]) = (rand() / (double)RAND_MAX - 0.5);
Im(U[1][XEL][i][1]) = (rand() / (double)RAND_MAX - 0.5);
}
initAlphaBeta();
}
/**********************************end of restart **********************/
/* store current Fourier coefficient into MC
used for solving the adjoint system. */
// destination // source
memset(MC[0][0][0][0], 0, (nsteps * 3 + 1) *
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
memmove(MC[0][0][0][0], C[0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
/***************solving state and incremental state equations ****/
/* time step for forward problem */
for (n = 0; n < nsteps + ru_steps; ++n) {
if (n % 100 == 0) {
printf("Step %d/%d\n", n, nsteps + ru_steps);
}
for (dctr = 0; dctr < 3; ++dctr) { /* RK steps */
/* do FFTs to get H_hats. After this we have for each (Kx,y,Kz)
Hx_hat --> U[z][HXEL][y][x]
Hy_hat --> U[z][HYEL][y][x]
Hz_hat --> U[z][HZEL][y][x]
*/
if (pass1(dctr, n) != NO_ERR) {
printf("Pass1 failure\n");
n = nsteps + ru_steps;
break;
}
count = (n - ru_steps) * 3 + dctr + 1;
project0(count, dctr, NULL); /* (kx, kz)=(0, 0),
solve for a, b */
project(count, dctr, 0, 1, NULL); /* (kx, kz)!=(0, 0),
solve for alpha, beta */
for (z = 1; z < Nz; ++z) {
if (z == Nz / 2) {
memset(U[z][0][0], 0,
5 * qpts * (Nx / 2) * sizeof(mcomplex));
memset(C[z][0][0], 0,
2 * dimR * (Nx / 2) * sizeof(mcomplex));
continue;
}
project(count, dctr, z, 0, NULL);
}
} /* end for dctr... */
} /* end for n... */
if (C_given != 0) { /* copy the final solution back to given buffer */
memmove(C_given, C[0][0][0],
(Nz) * 2 * dimR * (Nx / 2) * sizeof(mcomplex));
}
}
Foam::tmp<Foam::volScalarField> Foam::phasePair::Ta() const
{
return Re()*pow(Mo(), 0.23);
}
void restart(int restart_flag)
{
extern int qpts, dimR, dimQ, Nx, Nz;
extern mcomplex ****U, ****C;
extern mcomplex ****IU, ****IC;
int x, y, z, i;
hid_t file_id1, dataset_u, dataset_v,dataset_w; /* file identifier */
hid_t fid1,dataset_iu, dataset_iv,dataset_iw ;
hid_t complex_id;
hsize_t fdim[]={ qpts, Nz, Nx/2};
herr_t ret;
char filename [50];
/* define compound datatype for the complex number */
typedef struct
{
double re; /*real part*/
double im; /*imaginary part*/
} complex_t;
complex_id = H5Tcreate (H5T_COMPOUND, sizeof (complex_t));
H5Tinsert (complex_id, "real", HOFFSET(complex_t,re), H5T_NATIVE_DOUBLE);
H5Tinsert (complex_id, "imaginary", HOFFSET(complex_t,im), H5T_NATIVE_DOUBLE);
/* define some temporal matrix to store the data to the hdf file */
complex_t Matrix1[qpts][Nz][Nx/2];
complex_t Matrix2[qpts][Nz][Nx/2];
complex_t Matrix3[qpts][Nz][Nx/2];
complex_t IMatrix1[qpts][Nz][Nx/2];
complex_t IMatrix2[qpts][Nz][Nx/2];
complex_t IMatrix3[qpts][Nz][Nx/2]; // find the restart file
sprintf(filename, "data_t=%d", restart_flag);
// open the file and dataset
file_id1 = H5Fopen(filename, H5F_ACC_RDONLY, H5P_DEFAULT);
dataset_u = H5Dopen(file_id1,"/data_u");
dataset_v = H5Dopen(file_id1,"/data_v");
dataset_w = H5Dopen(file_id1,"/data_w");
dataset_iu = H5Dopen(file_id1,"/data_iu");
dataset_iv = H5Dopen(file_id1,"/data_iv");
dataset_iw = H5Dopen(file_id1,"/data_iw");
ret = H5Dread(dataset_u, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, Matrix1);
ret = H5Dread(dataset_v, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, Matrix2);
ret = H5Dread(dataset_w, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, Matrix3);
ret = H5Dread(dataset_iu, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, IMatrix1);
ret = H5Dread(dataset_iv, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, IMatrix2);
ret = H5Dread(dataset_iw, complex_id, H5S_ALL, H5S_ALL, H5P_DEFAULT, IMatrix3);
ret=H5Dclose(dataset_u);
ret=H5Dclose(dataset_v);
ret=H5Dclose(dataset_w);
ret=H5Dclose(dataset_iu);
ret=H5Dclose(dataset_iv);
ret=H5Dclose(dataset_iw);
ret=H5Fclose(file_id1);
for (y=0; y<qpts; y++)
{
for (z=0; z<Nz; ++z)
{
for(x=0; x<Nx/2; ++x)
{
Re(U[z][XEL][y][x])=Matrix1[y][z][x].re;
Im(U[z][XEL][y][x])=Matrix1[y][z][x].im;
Re(U[z][YEL][y][x])=Matrix2[y][z][x].re;
Im(U[z][YEL][y][x])=Matrix2[y][z][x].im;
Re(U[z][ZEL][y][x])=Matrix3[y][z][x].re;
Im(U[z][ZEL][y][x])=Matrix3[y][z][x].im;
Re(IU[z][XEL][y][x])=IMatrix1[y][z][x].re;
Im(IU[z][XEL][y][x])=IMatrix1[y][z][x].im;
Re(IU[z][YEL][y][x])=IMatrix2[y][z][x].re;
Im(IU[z][YEL][y][x])=IMatrix2[y][z][x].im;
Re(IU[z][ZEL][y][x])=IMatrix3[y][z][x].re;
Im(IU[z][ZEL][y][x])=IMatrix3[y][z][x].im;
}
}
}
/* compute inital coefficients in expansion given the value of ux hat, uy hat, uz hat. */
initAlphaBeta();
/* compute the boundary condition for previous stage or time step, result is stored in Uxb and Uzb*/
if (increBoundary()!= NO_ERR)
{
printf("increBoundary failure\n");
}
/* compute initial coefficients for incremental state solver */
incre_initAlphaBeta();
printf(" restart computed coefficients!\n");
for (i = 0; i < dimQ; ++i)
{
for (z= 0; z < Nz; ++z)
{
for (x = 0; x < Nx/2; ++x)
{
printf(" IC[%d][ALPHA][%d][%d]=%f+%fi\n", z, i, x,Re(IC[z][ALPHA][i][x]), Im(IC[z][ALPHA][i][x]));
}
}
}
for (i = 0; i < dimR; ++i)
{
for (z= 0; z < Nz; ++z)
{
for (x = 0; x < Nx/2; ++x)
{
printf(" IC[%d][BETA][%d][%d]=%f+%fi\n", z, i, x,Re(IC[z][BETA][i][x]), Im(IC[z][BETA][i][x]));
}
}
}
printf(" finish restart computing coefficients!\n\n");
}
/*==============================================================================
* CALC_POTENTIAL:
*
* rho^ = FFT(rho)
* Phi^ = G^ * rho^ ; G^ = -1/k**2 (no adjustment for finite differences)
* Phi = FFT(Phi^)
*
* uses NR routine fourn.c for FFT's
*==============================================================================*/
void fft_potential(flouble *data, long l1dim)
{
FILE *fpout;
double Green, sf, sf2;
double FFTnorm;
double kx, ky, kz, ksquare, kf;
double sin2sfkz, sin2sfky;
long *k;
long k_dim, k_nyq;
long i, l, m, n;
int forward=1, backward=-1;
unsigned long nn[NDIM];
/* dimensions of grid */
nn[0] = l1dim;
nn[1] = l1dim;
nn[2] = l1dim;
k_dim = l1dim;
k_nyq = l1dim/2;
/* this will help extracting information from data^ */
k = (long*) calloc(l1dim,sizeof(long));
for(i=0; i<l1dim; i++)
{
if(i <= k_nyq)
k[i] = i;
else
k[i] = -(l1dim-i);
}
/* fourn normalisation factor */
FFTnorm = (double)pow3(l1dim);
/* fundamental wave in box units: kf = 2*pi */
kf = TWOPI;
/* adjusting the 7-point-difference Green's function */
sf = PI/(double)l1dim/kf;
sf2 = pow2(sf);
/* forward FFT */
fourn(data-1, nn-1, NDIM, forward);
PkSpectrum.time -= time(NULL);
PkSpectrum.time += time(NULL);
/* calculation of gravitational potential */
for(n = 0; n < k_dim; n++)
{
kz = kf * k[n];
sin2sfkz = pow2(sin(sf*kz));
for(m = 0; m < k_dim; m++)
{
ky = kf * k[m];
sin2sfky = pow2(sin(sf*ky));
for(l = 0; l < k_dim; l++)
{
kx = kf * k[l];
/* get k^2 => NOT needed for 7-point difference approximation to Green = -1.0 / ksquare */
/* ksquare = kx * kx + ky * ky + kz * kz; */
/* Green's function */
if (k[l] == 0 && k[m] == 0 && k[n] == 0)
{
Green = 0.0;
}
else
{
/* 7-point difference approximation to Green = -1.0 / ksquare */
Green = -sf2/(pow2(sin(sf*kx))+sin2sfky+sin2sfkz);
}
data[Re(l,m,n,l1dim)] *= Green;
data[Im(l,m,n,l1dim)] *= Green;
}
}
}
/* backward FFT */
fourn(data-1, nn-1, NDIM, backward);
/* normalize FFT output */
for(i=0; i<2*l1dim*l1dim*l1dim; i++)
data[i] /= FFTnorm;
/* delete k-array again */
free(k);
}
/* Compute double precision LLR */
SPC_DECL void llr_d(const cArray inputSignal, /* input signal */
const int_T numElements, /* number of input signal elements */
const real_T *noiseVariance, /* noise variance */
const int_T M, /* M */
const int_T nBits, /* number of bits in symbol (log2(M)) */
const cArray constellation, /* signal constellation */
const int32_T *S0, /* symbols having 0 */
const int32_T *S1, /* symbols having 1 */
real_T *llr) /* output values - LLR */
{
int_T elementIdx = 0;
int_T symbolIdx = 0;
int_T bitIdx = 0;
real_T tempS0 = 0.0;
real_T tempS1 = 0.0;
real_T expSumS0 = 0.0;
real_T expSumS1 = 0.0;
for (elementIdx = 0; elementIdx < numElements; elementIdx++)
{
for (bitIdx = 0; bitIdx < nBits; bitIdx++)
{
expSumS0 = 0.0;
expSumS1 = 0.0;
for (symbolIdx = 0; symbolIdx < M/2; symbolIdx++)
{
/* tempS0 = (S0x - X)^2; (S0x, S0y) represet constellation symbols */
/* with bit 0
*/
/* cr: precompute (bitIdx*M/2)+symbolIdx */
tempS0 = (Re(constellation, S0[(bitIdx*M/2)+symbolIdx]) -
Re(inputSignal, elementIdx)) *
(Re(constellation, S0[(bitIdx*M/2)+symbolIdx]) -
Re(inputSignal, elementIdx));
/* tempS0 = (S0x - X)^2 + (S0y - Y)^2 */
tempS0 += (Im(constellation, S0[(bitIdx*M/2)+symbolIdx]) -
Im(inputSignal, elementIdx)) *
(Im(constellation, S0[(bitIdx*M/2)+symbolIdx]) -
Im(inputSignal, elementIdx));
expSumS0 += exp(-1 * tempS0 / noiseVariance[0]);
/* tempS1 = (S1x - X)^2; (S1x, S1y) represet constellation symbols */
/* with bit 1 */
tempS1 = (Re(constellation, S1[(bitIdx*M/2)+symbolIdx]) -
Re(inputSignal, elementIdx)) *
(Re(constellation, S1[(bitIdx*M/2)+symbolIdx]) -
Re(inputSignal, elementIdx));
/* tempS1 = (S1x - X)^2 + (S1y - Y)^2 */
tempS1 += (Im(constellation, S1[(bitIdx*M/2)+symbolIdx]) -
Im(inputSignal, elementIdx)) *
(Im(constellation, S1[(bitIdx*M/2)+symbolIdx]) -
Im(inputSignal, elementIdx));
expSumS1 += exp(-1 * tempS1 / noiseVariance[0]);
}
llr[(elementIdx * nBits) + bitIdx] = log(expSumS0 / expSumS1);
}
} /* end of "for (elementIdx = 0 ..." */
} /* end of llr_d() */
CComplex CbelaviewDoc::BlockIntegral(int inttype)
{
int i,k;
double B1,B2,F1,F2,y;
CComplex c,z;
CComplex A[3],Jn[3],U[3],V[3];
double a,R;
double r[3];
for(i=0,z=0;i<meshelem.GetSize();i++)
{
if((blocklist[meshelem[i].lbl].IsSelected==TRUE) && (inttype<5))
{
// compute some useful quantities employed by most integrals...
a=ElmArea(i)*pow(LengthConv[LengthUnits],2.);
if(ProblemType==1){
for(k=0;k<3;k++)
r[k]=meshnode[meshelem[i].p[k]].x*LengthConv[LengthUnits];
R=(r[0]+r[1]+r[2])/3.;
}
// now, compute the desired integral;
switch(inttype)
{
case 0: // stored energy
if(ProblemType==1) a*=(2.*PI*R); else a*=Depth;
z+=a*Re(D(i)*conj(E(i)))/2.;
break;
case 1: // cross-section area
z+=a;
break;
case 2: // volume
if(ProblemType==1) a*=(2.*PI*R); else a*=Depth;
z+=a;
break;
case 3: // D
if(ProblemType==1) a*=(2.*PI*R); else a*=Depth;
z+=a*D(i);
break;
case 4: // E
if(ProblemType==1) a*=(2.*PI*R); else a*=Depth;
z+=a*E(i);
break;
default:
break;
}
}
// integrals that need to be evaluated over all elements,
// regardless of which elements are actually selected.
if(inttype>4)
{
a=ElmArea(i)*pow(LengthConv[LengthUnits],2.);
if(ProblemType==1){
for(k=0;k<3;k++)
r[k]=meshnode[meshelem[i].p[k]].x*LengthConv[LengthUnits];
R=(r[0]+r[1]+r[2])/3.;
a*=(2.*PI*R);
}
else a*=Depth;
switch(inttype){
case 5:
B1=Re(D(i));
B2=Im(D(i));
c=HenrotteVector(i);
// x (or r) direction Henrotte force, SS part.
if(ProblemType==0){
y=(((B1*B1) - (B2*B2))*Re(c) + 2.*(B1*B2)*Im(c))/(2.*eo)*AECF(i);
z.re += (a*y);
}
// y (or z) direction Henrotte force, SS part
y=(((B2*B2) - (B1*B1))*Im(c) + 2.*(B1*B2)*Re(c))/(2.*eo)*AECF(i);
z.im += (a*y);
break;
case 6: // Henrotte torque, SS part.
if(ProblemType!=0) break;
B1=Re(D(i));
B2=Im(D(i));
c=HenrotteVector(i);
F1 = (((B1*B1) - (B2*B2))*Re(c) +
2.*(B1*B2)*Im(c))/(2.*eo);
F2 = (((B2*B2) - (B1*B1))*Im(c) +
2.*(B1*B2)*Re(c))/(2.*eo);
for(c=0,k=0;k<3;k++)
c+=meshnode[meshelem[i].p[k]].CC()*LengthConv[LengthUnits]/3.;
y=Re(c)*F2 -Im(c)*F1;
y*=AECF(i);
z+=(a*y);
break;
default:
break;
}
}
}
// Integrals 3 and 4 are averages over the selected volume;
// Need to divide by the block volme to get the average.
if((inttype==3) || (inttype==4)) z/=BlockIntegral(2);
return z;
}
/* project when (Kx,Kz) != (0,0) */
void increproject(int count, int k, int z, int x0,
func_force_tt force)
{
/* External Variables */
extern int qpts, dimR, dimQ, Nx;
extern double dt, re;
extern double *Kx, *Kz, **K2;
extern mcomplex **IFa, **IFb, **ITM;
extern double **Q, **Qp, **Qpp, **R, **Rp, **Qw, **Qpw, **Rw, **Qs,
**Qps, **Qpps, **Rs, **Rps;
extern double ***M;
extern mcomplex ****IU, ****IC;
extern mcomplex *****MIC;
/* Local variables */
int i, j, x;
double s, t[2];
/* static double a[3] = {29./96., -3./40., 1./6.};
static double b[3] = {37./160., 5./24., 1./6.};
static double c[3] = { 8./15., 5./12., 3./4.};
static double d[3] = { 0., -17./60., -5./12.}; */
static double a[3] = { 1. / 3., -1. / 2, 1. / 3. };
static double b[3] = { 1. / 6, 2. / 3, 0. };
static double c[3] = { 1. / 2, 1. / 3., 1., };
static double d[3] = { 0., -1. / 6, -2. / 3 };
/*static double e[4] = { 4. / 3., -4. / 15., -4. / 15., 4. / 35. };
static double r[8] =
{ -16. / 15., 16. / 35., 32. / 105., -32. / 105., -16. / 315.,
16. / 231., 0., 0. };
static double xx[8] =
{ 8. / 35., -8. / 315., -8. / 105., 8. / 385., 8. / 385.,
-8. / 1001., -8. / 3003., 8. / 6435. };*/
// static double h[3] = { 0., 1./2., 2./3.};
// static double h[3] = { 0., 8./15., 2./3.};
// mcomplex tmp[Nx / 2][dimR], tmp2[Nx / 2][dimQ];
//
// if (force != NULL) {
// force(n, k, z, tmp[0], tmp2[0]);
// }
/* Apply Forcing */
if ((force != NULL)&&(k==0)) {
memset(IFa[0], 0, dimQ * (Nx / 2) * sizeof(mcomplex));
memset(IFb[0], 0, dimR * (Nx / 2) * sizeof(mcomplex));
force(count, k, z, IFa, IFb);
/* form mass matrix, solve for forcing contribution to da/dt */
/* Left hand side M = Mv */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimQ; ++i) {
for (j = 0; j < T_QSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
M[i][j][x] = -(K2[z][x] * Qs[i][j] + Qps[i][j]);
}
}
}
bsolve(M, IFa, QSDIAG - 1, QSDIAG - 1, dimQ, Nx / 2, x0);
/* form mass matrix, solve for forcing contribution to db/dt */
/* Left hand side M = Mv */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimR; ++i) {
for (j = 0; j < T_RSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
M[i][j][x] = Rs[i][j];
}
}
}
bsolve(M, IFb, RSDIAG - 1, RSDIAG - 1, dimR, Nx / 2, x0);
for (x = x0; x < Nx / 2; ++x) {
for (i = 0; i < dimQ; ++i) {
Re(IC[z][ALPHA][i][x]) += dt * Re(IFa[i][x]);
Im(IC[z][ALPHA][i][x]) += dt * Im(IFa[i][x]);
}
for (i = 0; i < dimR; ++i) {
Re(IC[z][BETA][i][x]) += dt * Re(IFb[i][x]);
Im(IC[z][BETA][i][x]) += dt * Im(IFb[i][x]);
}
}
}
memset(IFa[0], 0, dimQ * (Nx / 2) * sizeof(mcomplex));
memset(IFb[0], 0, dimR * (Nx / 2) * sizeof(mcomplex));
/* FIRST COMPUTE ALPHAS */
/* Create matrices for solving linear system.
Right hand side of system: If this is the first step in the Runge-Kutta
scheme, compute
[Mv + (1/RE)a[k]dt*Dv]*C[z][ALPHA] + dt*c[k]Fv.
Otherwise, compute C[z][ALPHA] + dt*c[k]Fv.
Lhs matrix: Mv - (1/RE)b[k]dt*Dv */
if (k == 0) { /* first step */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimQ; ++i) { /* M = Mv + (1/RE)a[k]dt*Dv */
for (j = 0; j < T_QSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
s = K2[z][x] * K2[z][x];
M[i][j][x] = -(K2[z][x] * Qs[i][j] + Qps[i][j]) +
re * a[0] * dt * (s * Qs[i][j] +
2. * K2[z][x] * Qps[i][j] +
Qpps[i][j]);
}
}
}
/* compute [Mv + (1/RE)a[k]dt*Dv]*IC[z][ALPHA] and store the result
in TM. Then transfer the result back to IC[z][ALPHA]. */
smMult(M, IC[z][ALPHA], ITM, QSDIAG - 1, QSDIAG - 1, dimQ, Nx / 2,
x0);
for (i = 0; i < dimQ; ++i) {
memcpy(&IC[z][ALPHA][i][x0], &ITM[i][x0],
(Nx / 2 - x0) * sizeof(mcomplex));
}
}
/* Left hand side M = Mv - (1/RE)b[k]dt*Dv */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimQ; ++i) {
for (j = 0; j < T_QSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
s = K2[z][x] * K2[z][x];
M[i][j][x] = -(K2[z][x] * Qs[i][j] + Qps[i][j]) -
re * b[k] * dt * (s * Qs[i][j] +
2. * K2[z][x] * Qps[i][j] +
Qpps[i][j]);
}
}
}
/* Finish computing the right hand size */
/* array IFa */
//memset(IFa[0], 0, dimR * (Nx / 2) * sizeof(mcomplex));
for (i = 0; i < dimQ; ++i) {
for (j = 0; j < qpts; ++j) {
for (x = x0; x < Nx / 2; ++x) {
Re(IFa[i][x]) += (Qpw[i][j] *
(-Kx[x] * Im(IU[z][HXEL][j][x]) -
Kz[z] * Im(IU[z][HZEL][j][x])) -
K2[z][x] * (Qw[i][j] *
Re(IU[z][HYEL][j][x])));
Im(IFa[i][x]) +=
(Qpw[i][j] *
(Kx[x] * Re(IU[z][HXEL][j][x]) +
Kz[z] * Re(IU[z][HZEL][j][x])) -
K2[z][x] * (Qw[i][j] * Im(IU[z][HYEL][j][x])));
}
}
}
//if (force != NULL) {
// for (x = x0; x < Nx / 2; ++x) {
// for (i = 0; i < dimQ; ++i) {
// Im(IFa[i][x]) += Im(tmp[x][i]);
// Re(IFa[i][x]) += Re(tmp[x][i]);
// }
// }
//}
for (i = 0; i < dimQ; ++i) {
for (x = x0; x < Nx / 2; ++x) {
Re(IC[z][ALPHA][i][x]) += dt * c[k] * Re(IFa[i][x]);
Im(IC[z][ALPHA][i][x]) += dt * c[k] * Im(IFa[i][x]);
}
}
/* Boundary conditions enforced here (note presence of Uzbt */
/* for (x = x0; x < Nx / 2; ++x) {
for (i = 0; i < 8 && i < dimQ; ++i) {
Re(IC[z][ALPHA][i][x]) +=
(r[i] / 2. - K2[z][x] * xx[i]) * (Re(Uzbt[z][x]) -
Re(Uzb[z][x])) +
dt * re * (a[k] * Re(Uzbt[z][x]) +
b[k] * Re(Uzb[z][x])) * (-K2[z][x] * r[i] +
K2[z][x] * K2[z][x] *
xx[i]);
Im(IC[z][ALPHA][i][x]) +=
(r[i] / 2. - K2[z][x] * xx[i]) * (Im(Uzbt[z][x]) -
Im(Uzb[z][x])) +
dt * re * (a[k] * Im(Uzbt[z][x]) +
b[k] * Im(Uzb[z][x])) * (-K2[z][x] * r[i] +
K2[z][x] * K2[z][x] *
xx[i]);
}
}
*/
/* Compute alphas */
bsolve(M, IC[z][ALPHA], QSDIAG - 1, QSDIAG - 1, dimQ, Nx / 2, x0);
/* NOW COMPUTE BETAS */
/* Create matrices for solving linear system.
Right hand side of system: If this is the first step in the Runge-Kutta
scheme, compute
[Mg + (1/RE)a[k]dt*Dg]*C[z][BETA] + dt*c[k]Fg.
Otherwise, compute C[z][BETA] + dt*c[k]Fg.
Lhs matrix: Mg - (1/RE)b[k]dt*Dg */
if (k == 0) { /* first step */
/* M = Mg + (1/RE)a[k]dt*Dg */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimR; ++i) {
for (j = 0; j < T_RSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
M[i][j][x] = Rs[i][j] -
re * a[0] * dt * (Rps[i][j] + K2[z][x] * Rs[i][j]);
}
}
}
/* compute [Mv + (1/RE)a[k]dt*Dv]*IC[z][BETA] and store the result
in TM. Then transfer the result back to IC[z][ALPHA]. */
smMult(M, IC[z][BETA], ITM, RSDIAG - 1, RSDIAG - 1, dimR, Nx / 2,
x0);
for (i = 0; i < dimR; ++i) {
memcpy(&IC[z][BETA][i][x0], &ITM[i][x0],
(Nx / 2 - x0) * sizeof(mcomplex));
}
}
/* left hand side M = Mg - (1/RE)b[k]dt*Dg */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimR; ++i) { /* M = Mg - (1/RE)b[k]dt*Dg */
for (j = 0; j < T_RSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
M[i][j][x] = Rs[i][j] +
re * b[k] * dt * (Rps[i][j] + K2[z][x] * Rs[i][j]);
}
}
}
/* Finish computing the right hand size */
/* array Fb */
//memset(IFb[0], 0, dimR * (Nx / 2) * sizeof(mcomplex));
for (i = 0; i < dimR; ++i) {
for (j = 0; j < qpts; ++j) {
for (x = x0; x < Nx / 2; ++x) {
Re(IFb[i][x]) += Rw[i][j] *
(-Kz[z] * Im(IU[z][HXEL][j][x]) +
Kx[x] * Im(IU[z][HZEL][j][x]));
Im(IFb[i][x]) +=
Rw[i][j] * (Kz[z] * Re(IU[z][HXEL][j][x]) -
Kx[x] * Re(IU[z][HZEL][j][x]));
}
}
}
// if (force != NULL) {
// for (x = x0; x < Nx / 2; ++x) {
// for (i = 0; i < dimR; ++i) {
// Im(IFb[i][x]) += Im(tmp2[x][i]);
// Re(IFb[i][x]) += Re(tmp2[x][i]);
// }
// }
// }
for (i = 0; i < dimR; ++i) {
for (x = x0; x < Nx / 2; ++x) {
Re(IC[z][BETA][i][x]) += dt * c[k] * Re(IFb[i][x]);
Im(IC[z][BETA][i][x]) += dt * c[k] * Im(IFb[i][x]);
}
}
/* Boundary conditions here: */
/* for (x = x0; x < Nx / 2; ++x) {
for (i = 0; i < 4 && i < dimR; ++i) {
Re(IC[z][BETA][i][x]) +=
e[i] / 2. * (Re(Uxbt[z][x]) - Re(Uxb[z][x])) +
dt * re * (a[k] * Re(Uxbt[z][x]) +
b[k] * Re(Uxb[z][x])) * (-K2[z][x] * e[i] / 2.);
Im(IC[z][BETA][i][x]) +=
e[i] / 2. * (Im(Uxbt[z][x]) - Im(Uxb[z][x])) +
dt * re * (a[k] * Im(Uxbt[z][x]) +
b[k] * Im(Uxb[z][x])) * (-K2[z][x] * e[i] / 2.);
}
}
*/
/* Compute betas */
bsolve(M, IC[z][BETA], RSDIAG - 1, RSDIAG - 1, dimR, Nx / 2, x0);
/* NOW COMPUTE IU HATS */
/* v = uy_hat+c2/4*(1-y)^2*(1+y). */
for (i = 0; i < qpts; ++i) {
memset(&IU[z][YEL][i][x0], 0, (Nx / 2 - x0) * sizeof(mcomplex));
}
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
for (j = 0; j < dimQ; ++j) {
Re(IU[z][YEL][i][x]) += Q[i][j] * Re(IC[z][ALPHA][j][x]);
Im(IU[z][YEL][i][x]) += Q[i][j] * Im(IC[z][ALPHA][j][x]);
}
//Re(IU[z][YEL][i][x]) += Re(Uzb[z][x]) * Vadd[i] / 4.;
//Im(IU[z][YEL][i][x]) += Im(Uzb[z][x]) * Vadd[i] / 4.;
}
}
/* f = -dv/dy and store temporarily in XEL position of array U. */
/*f=-dv/dy-c2/4*(3y^2-2y-1) */
for (i = 0; i < qpts; ++i) {
memset(&IU[z][XEL][i][x0], 0, (Nx / 2 - x0) * sizeof(mcomplex));
}
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
for (j = 0; j < dimQ; ++j) {
Re(IU[z][XEL][i][x]) -= Qp[i][j] * Re(IC[z][ALPHA][j][x]);
Im(IU[z][XEL][i][x]) -= Qp[i][j] * Im(IC[z][ALPHA][j][x]);
}
//Re(IU[z][XEL][i][x]) -= Re(Uzb[z][x]) * Vpadd[i] / 4.;
//Im(IU[z][XEL][i][x]) -= Im(Uzb[z][x]) * Vpadd[i] / 4.;
}
}
/* sum(Q''alpha) and store in DXEL position. */
/*df/dy=d^2 v/dy^2+c2/4*(6y-2)=d^2 v/dy^2+c2/2*(-3+3y+2) */
for (i = 0; i < qpts; ++i) {
memset(&IU[z][DXEL][i][x0], 0, (Nx / 2 - x0) * sizeof(mcomplex));
}
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
for (j = 0; j < dimQ; ++j) {
Re(IU[z][DXEL][i][x]) +=
Qpp[i][j] * Re(IC[z][ALPHA][j][x]);
Im(IU[z][DXEL][i][x]) +=
Qpp[i][j] * Im(IC[z][ALPHA][j][x]);
}
//Re(IU[z][DXEL][i][x]) +=
// Re(Uzb[z][x]) * (-3 * Uadd[i] + 2) / 2.;
//Im(IU[z][DXEL][i][x]) +=
// Im(Uzb[z][x]) * (-3 * Uadd[i] + 2) / 2.;
}
}
/* Compute g = sum(beta*R) and store temporarily in ZEL position of
array U. */
for (i = 0; i < qpts; ++i) {
memset(&IU[z][ZEL][i][x0], 0, (Nx / 2 - x0) * sizeof(mcomplex));
}
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
for (j = 0; j < dimR; ++j) {
Re(IU[z][ZEL][i][x]) += R[i][j] * Re(IC[z][BETA][j][x]);
Im(IU[z][ZEL][i][x]) += R[i][j] * Im(IC[z][BETA][j][x]);
}
//Re(IU[z][ZEL][i][x]) += Re(Uxb[z][x]) * Uadd[i] / 2.;
//Im(IU[z][ZEL][i][x]) += Im(Uxb[z][x]) * Uadd[i] / 2.;
}
}
/* Compute sum(beta*R') and store temporarily in DZEL position of
array IU. */
for (i = 0; i < qpts; ++i) {
memset(&IU[z][DZEL][i][x0], 0, (Nx / 2 - x0) * sizeof(mcomplex));
}
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
for (j = 0; j < dimR; ++j) {
Re(IU[z][DZEL][i][x]) += Rp[i][j] * Re(IC[z][BETA][j][x]);
Im(IU[z][DZEL][i][x]) += Rp[i][j] * Im(IC[z][BETA][j][x]);
}
//Re(IU[z][DZEL][i][x]) += -Re(Uxb[z][x]) / 2.;
//Im(IU[z][DZEL][i][x]) += -Im(Uxb[z][x]) / 2.;
}
}
/* now compute Iux hat, Iuz hat */
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
t[0] = Re(IU[z][XEL][i][x]); /* real part of f */
t[1] = Re(IU[z][ZEL][i][x]); /* real part of g */
Re(IU[z][XEL][i][x]) = (Kx[x] * Im(IU[z][XEL][i][x]) +
Kz[z] * Im(IU[z][ZEL][i][x])) / K2[z][x];
Re(IU[z][ZEL][i][x]) = (-Kx[x] * Im(IU[z][ZEL][i][x]) +
Kz[z] * Im(IU[z][XEL][i][x])) / K2[z][x];
Im(IU[z][XEL][i][x]) =
-(Kx[x] * t[0] + Kz[z] * t[1]) / K2[z][x];
Im(IU[z][ZEL][i][x]) =
(Kx[x] * t[1] - Kz[z] * t[0]) / K2[z][x];
}
}
/* dux hat, duz hat */
for (i = 0; i < qpts; ++i) {
for (x = x0; x < Nx / 2; ++x) {
t[0] = Re(IU[z][DXEL][i][x]); /* real part of Q''alpha */
t[1] = Re(IU[z][DZEL][i][x]); /* real part of R'beta */
Re(IU[z][DXEL][i][x]) = (-Kx[x] * Im(IU[z][DXEL][i][x]) +
Kz[z] * Im(IU[z][DZEL][i][x])) /
K2[z][x];
Re(IU[z][DZEL][i][x]) =
-(Kx[x] * Im(IU[z][DZEL][i][x]) +
Kz[z] * Im(IU[z][DXEL][i][x])) / K2[z][x];
Im(IU[z][DXEL][i][x]) =
(Kx[x] * t[0] - Kz[z] * t[1]) / K2[z][x];
Im(IU[z][DZEL][i][x]) =
(Kx[x] * t[1] + Kz[z] * t[0]) / K2[z][x];
}
}
if (count >= 0) {
for (i = 0; i < dimR; i++) {
for (x = x0; x < Nx / 2; x++) {
Re(MIC[count][z][ALPHA][i][x]) = Re(IC[z][ALPHA][i][x]);
Im(MIC[count][z][ALPHA][i][x]) = Im(IC[z][ALPHA][i][x]);
}
}
for (i = 0; i < dimR; i++) {
for (x = x0; x < Nx / 2; x++) {
Re(MIC[count][z][BETA][i][x]) = Re(IC[z][BETA][i][x]);
Im(MIC[count][z][BETA][i][x]) = Im(IC[z][BETA][i][x]);
}
}
}
/* UPDATE RHS FOR NEXT TIME */
if (k != 2) { /* not last step */
/* first alphas */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimQ; ++i) { /* M = Mv + (1/RE)a[k+1]dt*Dv */
for (j = 0; j < T_QSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
s = K2[z][x] * K2[z][x];
M[i][j][x] = -(K2[z][x] * Qs[i][j] + Qps[i][j]) +
re * a[k + 1] * dt * (s * Qs[i][j] +
2. * K2[z][x] * Qps[i][j] +
Qpps[i][j]);
}
}
}
/* compute [Mv + (1/RE)a[k]dt*Dv]*C[z][ALPHA]. Then update
C[z][ALPHA] */
smMult(M, IC[z][ALPHA], ITM, QSDIAG - 1, QSDIAG - 1, dimQ, Nx / 2,
x0);
for (i = 0; i < dimQ; ++i) {
for (x = x0; x < Nx / 2; ++x) {
Re(IC[z][ALPHA][i][x]) =
Re(ITM[i][x]) + dt * d[k + 1] * Re(IFa[i][x]);
Im(IC[z][ALPHA][i][x]) =
Im(ITM[i][x]) + dt * d[k + 1] * Im(IFa[i][x]);
}
}
/* now betas */
memset(M[0][0], 0, dimR * 9 * (Nx / 2) * sizeof(double));
for (i = 0; i < dimR; ++i) { /* M = Mg + (1/RE)a[k+1]dt*Dg */
for (j = 0; j < T_RSDIAG; ++j) {
for (x = x0; x < Nx / 2; ++x) {
M[i][j][x] = Rs[i][j] -
re * a[k + 1] * dt * (Rps[i][j] +
K2[z][x] * Rs[i][j]);
}
}
}
/* compute [Mg + (1/RE)a[k+1]dt*Dg]*C[z][BETA] and then
update C[z][BETA] */
smMult(M, IC[z][BETA], ITM, RSDIAG - 1, RSDIAG - 1, dimR, Nx / 2,
x0);
for (i = 0; i < dimR; ++i) {
for (x = x0; x < Nx / 2; ++x) {
Re(IC[z][BETA][i][x]) =
Re(ITM[i][x]) + dt * d[k + 1] * Re(IFb[i][x]);
Im(IC[z][BETA][i][x]) =
Im(ITM[i][x]) + dt * d[k + 1] * Im(IFb[i][x]);
}
}
}
}
std::ostream & operator<<(std::ostream & out, const Complex & c)
{
out << "(" << Re(c) << ", " << Im(c) << "i)" << endl;
return out;
}
//! Constructor of class cdotprecision
explicit inline cdotprecision(const complex &c) : re(Re(c)),im(Im(c)) { }
void CiSi( double x, double *ci, double *si )
{
int i, k, odd;
double a, err, fact, sign, sum, sumc, sums, t, term;
Complex h, b, c, d, del;
t = fabs(x);
if( t == 0.0 )
{
*si = 0.0;
*ci = -1.0 / FPMIN;
return;
}
if( t > TMIN )
{
b = Complex(1.0, t);
c = Complex(1.0/FPMIN, 0.0);
d = h = ONE / b;
for( i=2; i<=MAXIT; i++ )
{
a = -(i-1) * ( i-1);
b += Complex(2.0, 0.0);
d = ONE / ( a * d + b );
c = b + (Complex(a, 0.0) / c);
del = c * d;
h *= del;
if( fabs(Re(del) - 1.0) + fabs(Im(del)) < EPS)
break;
}
if( i > MAXIT )
{
printf("cf failed u CiSi");
assert(0);
}
h *= Complex(cos(t),sin(t));
*ci = -Re(h);
*si = PIBY2 + Im(h);
}
else
{
if( t < sqrt(FPMIN) )
{
sumc = 0.0;
sums = t;
}
else
{
sum = sumc = sums = 0.0;
sign = fact = 1.0;
odd = TRUE;
for( k=1; k<=MAXIT; k++ )
{
fact *= t / k;
term = fact / k;
sum += sign*term;
err = term/fabs(sum);
if( odd)
{
sign = -sign;
sums = sum;
sum = sumc;
}
else
{
sumc = sum;
sum = sums;
}
if( err < EPS )
break;
odd = !odd;
}
if( k > MAXIT )
{
printf("Maxits exceeded ");
assert(0);
}
}
*si = sums;
*ci = sumc + log(t) + EULER;
}
if( x < 0.0 )
*si = -(*si);
}
//! Implementation of standard assigning operator
inline cdotprecision& operator= (const complex & a)
{ re=Re(a),im=Im(a); return *this; }
Arbin E(){
printf("E->TRe\n");
return Re(T());
}
int comp_stat(int n)
{
/* External Variables */
extern int Nx, Nz, qpts, nums;
extern mcomplex ****U,****IU, **GUxb,**GUzb, ishear;
extern double **uu, **us, *W;
extern FILE *fp, *fp2, *fp3, *fp4, *fp5, *fp6, *fp7, *fp8, *fp9, *fp10, *fp11;
extern fftw_complex ***CT;
extern fftw_plan pf1, pf2;
extern fftw_plan Ipf1, Ipf2;
extern rfftwnd_plan pr1, pr2;
extern double *Kx, *Kz, **K2;
extern double re, dt, tau, itau;
int x,i,j,y, z, idx;
fftw_real *RT; /* real to complex transform */
fftw_complex *fout = NULL;
fftw_real *rout = NULL;
extern mcomplex ****U,****IU;
double norm;
idx = (3*Nz/2)*(3*Nx/2+2);
RT = (fftw_real *)CT[0][0];
norm = 1.0 / ((3.*Nx/2.)*(3.*Nz/2.));
double u1, u2, u3, u1u2, u1u3, u2u3, u1y;
double iu1, iu2, iu3, iu1u2, iu1u3, iu2u3, u1u1, u2u2, u3u3, iu1u1, iu2u2, iu3u3;
double au1, au2, au3, au1u2, au1u3, au2u3, au1u1, au2u2, au3u3;
double iau1, iau2, iau3, iau1u2, iau1u3, iau2u3, iau1u1, iau2u2, iau3u3;
tau+=Re(GUxb[0][0]);
itau+=Re(ishear);
/* for(j=0; j< qpts; j++)
{
uu[0][j] += Re(U[0][XEL][j][0]);
uu[1][j] += Re(U[0][YEL][j][0]);
uu[2][j] += Re(U[0][ZEL][j][0]);
uu[3][j] += Re(IU[0][XEL][j][0]);
uu[4][j] += Re(IU[0][YEL][j][0]);
uu[5][j] += Re(IU[0][ZEL][j][0]);
}*/
if( (n+1) % 100 ==0)
{
/* record wall shear stress for state and incremental state */
fprintf(fp7, "%f\n", tau/100.);
tau=0;
fprintf(fp8, "%f\n", itau/100.);
itau=0;
au1=0; au2=0; au3=0; au1u2=0; au2u3=0; au1u3=0; au1u1=0; au2u2=0; au3u3=0;
iau1=0; iau2=0; iau3=0; iau1u2=0; iau2u3=0; iau1u3=0; iau1u1=0; iau2u2=0; iau3u3=0;
nums=nums+1;
/*fprintf(fp, "the time averge %d, %d\n", (n+1)-50, (n+1));
for(j=0; j< qpts; j++)
{
fprintf(fp, "%d, %f %f %f \n", j, uu[0][j]/50., uu[1][j]/50., uu[2][j]/50.);
}
fprintf(fp2, "the time averge %d, %d\n", (n+1)-50, (n+1));
for(j=0; j< qpts; j++)
{
fprintf(fp2, "%d, %f %f %f \n", j, uu[3][j]/50., uu[4][j]/50., uu[5][j]/50.);
}
memset(uu[0], 0, 6*(qpts)*sizeof(double));*/
memset(CT[0][0], 0, MAXTT*(3*Nz/2)*(3*Nx/4+1)*sizeof(fftw_complex));
for (z = 0; z < Nz/2; ++z)
{
memcpy(CT[0][z], GUxb[z], (Nx/2)*sizeof(fftw_complex));
memcpy(CT[1][z], GUzb[z], (Nx/2)*sizeof(fftw_complex));
}
for (z = Nz/2+1; z < Nz; ++z)
{
memcpy(CT[0][z+Nz/2], GUxb[z], (Nx/2)*sizeof(fftw_complex));
memcpy(CT[1][z+Nz/2], GUzb[z], (Nx/2)*sizeof(fftw_complex));
}
for (i = 0; i < 2; ++i)
{
/* Each column of CT[i] */
fftw(pf1, Nx/2, CT[i][0], 3*Nx/4+1, 1, fout, -1, -1);
/* Each row of CT[i] */
rfftwnd_complex_to_real(pr1, 3*Nz/2, CT[i][0], 1, 3*Nx/4+1,
rout, -1, -1);
}
z=5;
for(x=0; x< Nx/2; x++)
{
fprintf(fp2, " %f %f \n", RT[(z*(3*Nx/2+2)+x)], RT[idx+(z*(3*Nx/2+2)+x)]);
}
z=20;
for(x=0; x< Nx/2; x++)
{
fprintf(fp11, " %f %f \n", RT[(z*(3*Nx/2+2)+x)], RT[idx+(z*(3*Nx/2+2)+x)]);
}
for (y = 0; y < qpts; ++y)
{
memset(CT[0][0], 0, MAXTT*(3*Nz/2)*(3*Nx/4+1)*sizeof(fftw_complex));
for (i = 0; i < 3; ++i)
{
for (z = 0; z < Nz/2; ++z)
{
memcpy(CT[i][z], U[z][i][y], (Nx/2)*sizeof(fftw_complex));
memcpy(CT[i+3][z], IU[z][i][y], (Nx/2)*sizeof(fftw_complex));
}
for (z = Nz/2+1; z < Nz; ++z)
{
memcpy(CT[i][z+Nz/2], U[z][i][y], (Nx/2)*sizeof(fftw_complex));
memcpy(CT[i+3][z+Nz/2], IU[z][i][y], (Nx/2)*sizeof(fftw_complex));
}
}
for (z = 0; z < Nz/2; ++z)
{
memcpy(CT[6][z], U[z][DXEL][y], (Nx/2)*sizeof(fftw_complex));
}
for (z = Nz/2+1; z < Nz; ++z)
{
memcpy(CT[6][z+Nz/2], U[z][DXEL][y], (Nx/2)*sizeof(fftw_complex));
}
for (i = 0; i < 7; ++i)
{
/* Each column of CT[i] */
fftw(pf1, Nx/2, CT[i][0], 3*Nx/4+1, 1, fout, -1, -1);
/* Each row of CT[i] */
rfftwnd_complex_to_real(pr1, 3*Nz/2, CT[i][0], 1, 3*Nx/4+1,
rout, -1, -1);
}
u1=0;
u2=0;
u3=0;
u1y=0;
u1u2=0;
u1u3=0;
u2u3=0;
u1u1=0;
u2u2=0;
u3u3=0;
for (z = 0; z < (3*Nz/2); ++z)
{
for (x = 0; x < 3*Nx/2; ++x)
{
u1 += RT[XEL*idx+(z*(3*Nx/2+2)+x)];
u2 += RT[YEL*idx+(z*(3*Nx/2+2)+x)];
u3 += RT[ZEL*idx+(z*(3*Nx/2+2)+x)];
u1y+=RT[6*idx+(z*(3*Nx/2+2)+x)];
u1u2 += RT[XEL*idx+(z*(3*Nx/2+2)+x)]* RT[YEL*idx+(z*(3*Nx/2+2)+x)];
u1u3 += RT[XEL*idx+(z*(3*Nx/2+2)+x)]* RT[ZEL*idx+(z*(3*Nx/2+2)+x)];
u2u3 += RT[YEL*idx+(z*(3*Nx/2+2)+x)]* RT[ZEL*idx+(z*(3*Nx/2+2)+x)];
u1u1 += RT[XEL*idx+(z*(3*Nx/2+2)+x)]* RT[XEL*idx+(z*(3*Nx/2+2)+x)];
u2u2 += RT[YEL*idx+(z*(3*Nx/2+2)+x)]* RT[YEL*idx+(z*(3*Nx/2+2)+x)];
u3u3 += RT[ZEL*idx+(z*(3*Nx/2+2)+x)]* RT[ZEL*idx+(z*(3*Nx/2+2)+x)];
}
}
u1=u1/(3*Nz/2)/(3*Nx/2);
u2=u2/(3*Nz/2)/(3*Nx/2);
u3=u3/(3*Nz/2)/(3*Nx/2);
u1y=u1y/(3*Nz/2)/(3*Nx/2);
u1u2=u1u2/(3*Nz/2)/(3*Nx/2);
u1u3=u1u3/(3*Nz/2)/(3*Nx/2);
u2u3=u2u3/(3*Nz/2)/(3*Nx/2);
u1u1=u1u1/(3*Nz/2)/(3*Nx/2);
u2u2=u2u2/(3*Nz/2)/(3*Nx/2);
u3u3=u3u3/(3*Nz/2)/(3*Nx/2);
us[0][y]+=u1;
us[1][y]+=u2;
us[2][y]+=u3;
us[3][y]+=u1u2;
us[4][y]+=u1u3;
us[5][y]+=u2u3;
us[12][y]+=u1u1;
us[13][y]+=u2u2;
us[14][y]+=u3u3;
us[18][y]+=u1y;
// fprintf(fp, "%d, %f %f %f %f %f %f %f %f %f\n", y, u1, u2, u3, u1u2, u1u3, u2u3, u1u1, u2u2, u3u3);
if(y==5)
{
fprintf(fp3, " %f %f %f %f %f %f %f %f %f %f\n", u1, u2, u3, u1u2, u1u3, u2u3, u1u1, u2u2, u3u3, 0.5*(u1u1+u2u2+u3u3));
}
if(y==40)
{
fprintf(fp4, " %f %f %f %f %f %f %f %f %f %f \n", u1, u2, u3, u1u2, u1u3, u2u3, u1u1, u2u2, u3u3, 0.5*(u1u1+u2u2+u3u3));
}
iu1=0;
iu2=0;
iu3=0;
iu1u2=0;
iu1u3=0;
iu2u3=0;
iu1u1=0;
iu2u2=0;
iu3u3=0;
for (z = 0; z < (3*Nz/2); ++z)
{
for (x = 0; x < 3*Nx/2; ++x)
{
iu1 += RT[(XEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu2 += RT[(YEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu3 += RT[(ZEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu1u2 += RT[(XEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(YEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu1u3 += RT[(XEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(ZEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu2u3 += RT[(YEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(ZEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu1u1 += RT[(XEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(XEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu2u2 += RT[(YEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(YEL+3)*idx+(z*(3*Nx/2+2)+x)];
iu3u3 += RT[(ZEL+3)*idx+(z*(3*Nx/2+2)+x)]* RT[(ZEL+3)*idx+(z*(3*Nx/2+2)+x)];
}
}
iu1=iu1/(3*Nz/2)/(3*Nx/2);
iu2=iu2/(3*Nz/2)/(3*Nx/2);
iu3=iu3/(3*Nz/2)/(3*Nx/2);
iu1u2=iu1u2/(3*Nz/2)/(3*Nx/2);
iu1u3=iu1u3/(3*Nz/2)/(3*Nx/2);
iu2u3=iu2u3/(3*Nz/2)/(3*Nx/2);
iu1u1=iu1u1/(3*Nz/2)/(3*Nx/2);
iu2u2=iu2u2/(3*Nz/2)/(3*Nx/2);
iu3u3=iu3u3/(3*Nz/2)/(3*Nx/2);
us[6][y]+=iu1;
us[7][y]+=iu2;
us[8][y]+=iu3;
us[9][y]+=iu1u2;
us[10][y]+=iu1u3;
us[11][y]+=iu2u3;
us[15][y]+=iu1u1;
us[16][y]+=iu2u2;
us[17][y]+=iu3u3;
//fprintf(fp2, "%d, %f %f %f %f %f %f %f %f %f \n", y, iu1, iu2, iu3, iu1u2, iu1u3, iu2u3, iu1u1, iu2u2, iu3u3);
if(y==5)
{
fprintf(fp5, " %f %f %f %f %f %f %f %f %f %f \n", iu1, iu2, iu3, iu1u2, iu1u3, iu2u3, iu1u1, iu2u2, iu3u3, 0.5*(iu1u1+iu2u2+iu3u3));
}
if(y==40)
{
fprintf(fp6, " %f %f %f %f %f %f %f %f %f %f\n", iu1, iu2, iu3, iu1u2, iu1u3, iu2u3, iu1u1, iu2u2, iu3u3,0.5*(iu1u1+iu2u2+iu3u3) );
}
au1+=u1*W[y]; au2+=u2*W[y]; au3+=u3*W[y];
au1u2+=u1u2*W[y]; au2u3+=u2u3*W[y]; au1u3+=u1u3*W[y];
au1u1+=u1u1*W[y]; au2u2+=u2u2*W[y]; au3u3+=u3u3*W[y];
iau1+=iu1*W[y]; iau2+=iu2*W[y]; iau3+=iu3*W[y];
iau1u2+=iu1u2*W[y]; iau2u3+=iu2u3*W[y]; iau1u3+=iu1u3*W[y];
iau1u1+=iu1u1*W[y]; iau2u2+=iu2u2*W[y]; iau3u3+=iu3u3*W[y];
}
fprintf(fp9, " %f %f %f %f %f %f %f %f %f \n", au1, au2, au3, au1u2, au1u3, au2u3, au1u1, au2u2, au3u3);
fprintf(fp10, " %f %f %f %f %f %f %f %f %f \n", iau1, iau2, iau3, iau1u2, iau1u3, iau2u3, iau1u1, iau2u2, iau3u3);
}
return(NO_ERR);
}
void parcel::setRelaxationTimes
(
label celli,
scalar& tauMomentum,
scalarField& tauEvaporation,
scalar& tauHeatTransfer,
scalarField& tauBoiling,
const spray& sDB,
const scalar rho,
const vector& Up,
const scalar temperature,
const scalar pressure,
const scalarField& Yfg,
const scalarField& m0,
const scalar dt
)
{
const liquidMixture& fuels = sDB.fuels();
scalar mCell = rho*sDB.mesh().V()[cell()];
scalarField mfg(Yfg*mCell);
label Ns = sDB.composition().Y().size();
label Nf = fuels.components().size();
// Tf is based on the 1/3 rule
scalar Tf = T() + (temperature - T())/3.0;
// calculate mixture properties
scalar W = 0.0;
scalar kMixture = 0.0;
scalar cpMixture = 0.0;
scalar muf = 0.0;
for(label i=0; i<Ns; i++)
{
scalar Y = sDB.composition().Y()[i][celli];
W += Y/sDB.gasProperties()[i].W();
// Using mass-fractions to average...
kMixture += Y*sDB.gasProperties()[i].kappa(Tf);
cpMixture += Y*sDB.gasProperties()[i].Cp(Tf);
muf += Y*sDB.gasProperties()[i].mu(Tf);
}
W = 1.0/W;
scalarField Xf(Nf, 0.0);
scalarField Yf(Nf, 0.0);
scalarField psat(Nf, 0.0);
scalarField msat(Nf, 0.0);
for(label i=0; i<Nf; i++)
{
label j = sDB.liquidToGasIndex()[i];
scalar Y = sDB.composition().Y()[j][celli];
scalar Wi = sDB.gasProperties()[j].W();
Yf[i] = Y;
Xf[i] = Y*W/Wi;
psat[i] = fuels.properties()[i].pv(pressure, temperature);
msat[i] = min(1.0, psat[i]/pressure)*Wi/W;
}
scalar nuf = muf/rho;
scalar liquidDensity = fuels.rho(pressure, T(), X());
scalar liquidcL = fuels.cp(pressure, T(), X());
scalar heatOfVapour = fuels.hl(pressure, T(), X());
// calculate the partial rho of the fuel vapour
// alternative is to use the mass fraction
// however, if rhoFuelVap is small (zero)
// d(mass)/dt = 0 => no evaporation... hmmm... is that good? NO!
// Assume equilibrium at drop-surface => pressure @ surface
// = vapour pressure to calculate fuel-vapour density @ surface
scalar pressureAtSurface = fuels.pv(pressure, T(), X());
scalar rhoFuelVap = pressureAtSurface*fuels.W(X())/(specie::RR()*Tf);
scalarField Xs(sDB.fuels().Xs(pressure, temperature, T(), Xf, X()));
scalarField Ys(Nf, 0.0);
scalar Wliq = 0.0;
for(label i=0; i<Nf; i++)
{
label j = sDB.liquidToGasIndex()[i];
scalar Wi = sDB.gasProperties()[j].W();
Wliq += Xs[i]*Wi;
}
for(label i=0; i<Nf; i++)
{
label j = sDB.liquidToGasIndex()[i];
scalar Wi = sDB.gasProperties()[j].W();
Ys[i] = Xs[i]*Wi/Wliq;
}
scalar Reynolds = Re(Up, nuf);
scalar Prandtl = Pr(cpMixture, muf, kMixture);
// calculate the characteritic times
if(liquidCore_> 0.5)
{
// no drag for parcels in the liquid core..
tauMomentum = GREAT;
}
else
{
tauMomentum = sDB.drag().relaxationTime
(
Urel(Up),
d(),
rho,
liquidDensity,
nuf,
dev()
);
}
// store the relaxationTime since it is needed in some breakup models.
tMom_ = tauMomentum;
tauHeatTransfer = sDB.heatTransfer().relaxationTime
(
liquidDensity,
d(),
liquidcL,
kMixture,
Reynolds,
Prandtl
);
// evaporation-properties are evaluated at averaged temperature
// set the boiling conditions true if pressure @ surface is 99.9%
// of the pressure
// this is mainly to put a limit on the evaporation time,
// since tauEvaporation is very very small close to the boiling point.
for(label i=0; i<Nf; i++)
{
scalar Td = min(T(), 0.999*fuels.properties()[i].Tc());
bool boiling = fuels.properties()[i].pv(pressure, Td)
>= 0.999*pressure;
scalar Di = fuels.properties()[i].D(pressure, Td);
scalar Schmidt = Sc(nuf, Di);
scalar partialPressure = Xf[i]*pressure;
// saturated vapour
if(partialPressure > psat[i])
{
tauEvaporation[i] = GREAT;
}
// not saturated vapour
else
{
if (!boiling)
{
// For saturation evaporation, only use 99.99% for
// numerical robustness
scalar dm = max(SMALL, 0.9999*msat[i] - mfg[i]);
tauEvaporation[i] = sDB.evaporation().relaxationTime
(
d(),
fuels.properties()[i].rho(pressure, Td),
rhoFuelVap,
Di,
Reynolds,
Schmidt,
Xs[i],
Xf[i],
m0[i],
dm,
dt
);
}
else
{
scalar Nusselt =
sDB.heatTransfer().Nu(Reynolds, Prandtl);
// calculating the boiling temperature of the liquid at ambient pressure
scalar tBoilingSurface = Td;
label Niter = 0;
scalar deltaT = 10.0;
scalar dp0 = fuels.properties()[i].pv(pressure, tBoilingSurface) - pressure;
while ((Niter < 200) && (mag(deltaT) > 1.0e-3))
{
Niter++;
scalar pBoil = fuels.properties()[i].pv(pressure, tBoilingSurface);
scalar dp = pBoil - pressure;
if ( (dp > 0.0) && (dp0 > 0.0) )
{
tBoilingSurface -= deltaT;
}
else
{
if ( (dp < 0.0) && (dp0 < 0.0) )
{
tBoilingSurface += deltaT;
}
else
{
deltaT *= 0.5;
if ( (dp > 0.0) && (dp0 < 0.0) )
{
tBoilingSurface -= deltaT;
}
else
{
tBoilingSurface += deltaT;
}
}
}
dp0 = dp;
}
scalar vapourSurfaceEnthalpy = 0.0;
scalar vapourFarEnthalpy = 0.0;
for(label k = 0; k < sDB.gasProperties().size(); k++)
{
vapourSurfaceEnthalpy += sDB.composition().Y()[k][celli]*sDB.gasProperties()[k].H(tBoilingSurface);
vapourFarEnthalpy += sDB.composition().Y()[k][celli]*sDB.gasProperties()[k].H(temperature);
}
scalar kLiquid = fuels.properties()[i].K(pressure, 0.5*(tBoilingSurface+T()));
tauBoiling[i] = sDB.evaporation().boilingTime
(
fuels.properties()[i].rho(pressure, Td),
fuels.properties()[i].cp(pressure, Td),
heatOfVapour,
kMixture,
Nusselt,
temperature - T(),
d(),
liquidCore(),
sDB.runTime().value() - ct(),
Td,
tBoilingSurface,
vapourSurfaceEnthalpy,
vapourFarEnthalpy,
cpMixture,
temperature,
kLiquid
);
}
}
}
}
complex COMPLEXmult(complex a, complex b)
{
return COMPLEXinit(Re(a)*Re(b) - Im(a)*Im(b),
Re(a)*Im(b) + Im(a)*Re(b));
}
Re call(A0 const&) const
{
return Re();
}
static void destructor_lambda(lambda_t* handle)
{
mpf_clear(Re(handle->lambda));
mpf_clear(Im(handle->lambda));
free(handle);
}
