void BenchcSysQuadCreuse
(
INT aNbVar,
INT aNbEq,
cNameSpaceEqF::eTypeSysResol aType
)
{
bool isFixe = NRrandom3() < 0.5;
//cFormQuadCreuse aSCr(aNbVar,isFixe);
cFormQuadCreuse aSCr( aNbVar, cElMatCreuseGen::StdNewOne( aNbVar, aNbVar, isFixe ) ); // __NEW
//aSCr.SetEpsB(1e-10);
cGenSysSurResol & aS1 = aSCr;
L2SysSurResol aSPl(aNbVar);
cGenSysSurResol & aS2 = aSPl;
bool SysFix = (aType == cNameSpaceEqF::eSysCreuxFixe);
cSetEqFormelles aSet2(aType); // ,1e-10);
cEqFormelleLineaire * anEq2_1 = aSet2.NewEqLin(1,aNbVar);
cEqFormelleLineaire * anEq2_3 = aSet2.NewEqLin(3,aNbVar);
Im1D_REAL8 aIm2(aNbVar,0.0);
for (INT aK=0; aK<aNbVar; aK++)
aSet2.Alloc().NewInc(aIm2.data()+aK);
aSet2.SetClosed();
//if (aType != cNameSpaceEqF::eSysPlein)
// aSet2.FQC()->SetEpsB(1e-10);
Im1D_REAL8 aF(aNbVar,0.0);
for (INT aNbTest=0 ; aNbTest<3 ; aNbTest++)
{
for (INT aX =0 ; aX<aNbVar; aX++)
{
std::vector<INT> V;
V.push_back(aX);
REAL aPds = 0.5;
double C1 = 1;
aF.data()[aX] = C1;
REAL aCste = NRrandom3();
if (isFixe)
{
if (aX==0)
aSCr.SetOffsets(V);
//aS1.GSSR_AddNewEquation_Indexe(V,aPds,&C1,aCste);
aS1.GSSR_AddNewEquation_Indexe(V,aPds,&C1,aCste);
}
else
aS1.GSSR_AddNewEquation(aPds,aF.data(),aCste);
aS2.GSSR_AddNewEquation(aPds,aF.data(),aCste);
if ((NRrandom3() < 0.5) && (! SysFix))
anEq2_1->AddEqNonIndexee(aCste,&C1,aPds,V);
else
{
if (SysFix)
aSet2.FQC()->SetOffsets(V);
anEq2_1->AddEqIndexee(aCste,&C1,aPds,V);
}
aF.data()[aX] = 0;
}
for (INT aK =0 ; aK<aNbEq; aK++)
{
std::vector<INT> aVInd;
REAL aV3[3];
static INT I1=0;
static INT I2=0;
static INT I3=0;
bool TransI = (NRrandom3() <0.5)
&& (aK != 0)
&& (I1 < aNbVar-1)
&& (I2 < aNbVar-1)
&& (I3 < aNbVar-1);
if (TransI)
{
I1++;
I2++;
I3++;
}
else
{
I1 = std::min(aNbVar-1,INT(NRrandom3()*aNbVar));
I2 = std::min(aNbVar-1,INT(NRrandom3()*aNbVar));
I3 = std::min(aNbVar-1,INT(NRrandom3()*aNbVar));
}
REAL aCste = NRrandom3();
aV3[0] = NRrandom3();
aV3[1] = NRrandom3();
aV3[2] = NRrandom3();
aF.data()[I1] += aV3[0];
aF.data()[I2] += aV3[1];
aF.data()[I3] += aV3[2];
aVInd.push_back(I1);
aVInd.push_back(I2);
aVInd.push_back(I3);
if ((NRrandom3() < 0.5) && (! SysFix))
anEq2_3->AddEqNonIndexee(aCste,aV3,1,aVInd);
else
{
if (SysFix)
{
if (! TransI)
aSet2.FQC()->SetOffsets(aVInd);
}
anEq2_3->AddEqIndexee(aCste,aV3,1,aVInd);
}
if ((NRrandom3()<0.5) || isFixe)
{
if (isFixe)
{
if (! TransI)
aSCr.SetOffsets(aVInd);
}
aS1.GSSR_AddNewEquation_Indexe(aVInd,1,aV3,aCste);
}
else
aS1.GSSR_AddNewEquation(1,aF.data(),aCste);
if (NRrandom3()<0.5)
aS2.GSSR_AddNewEquation_Indexe(aVInd,1,aV3,aCste);
else
aS2.GSSR_AddNewEquation(1,aF.data(),aCste);
aF.data()[I1] = 0;
aF.data()[I2] = 0;
aF.data()[I3] = 0;
}
bool OK;
Im1D_REAL8 Sol1 = aS1.GSSR_Solve(&OK);
Im1D_REAL8 Sol2 = aS2.GSSR_Solve(&OK);
REAL aDif;
ELISE_COPY(Sol1.all_pts(),Abs(Sol1.in()-Sol2.in()),VMax(aDif));
cout << "a Dif " << aDif << "\n";
BENCH_ASSERT(aDif<1e-4);
aSet2.SolveResetUpdate();
ELISE_COPY(Sol1.all_pts(),Abs(aIm2.in()-Sol2.in()),VMax(aDif));
cout << "a Dif " << aDif << "\n";
BENCH_ASSERT(aDif<1e-4);
aS1.GSSR_Reset();
aS2.GSSR_Reset();
}
}
PtsHom ReadPtsHom(string aDir, GrpVodka aGrpVodka, string Extension)
{
PtsHom aPtsHomol;
Pt2di aSz;
//Looking for maxs of vectOfExpTimeISO
double maxExpTime=0, maxISO=0;
for (int i=0;i<int(aGrpVodka.size());i++){
if(aGrpVodka.ExpTime[i]>maxExpTime){maxExpTime=aGrpVodka.ExpTime[i];}
if(aGrpVodka.ISO[i]>maxISO){maxISO=aGrpVodka.ISO[i];}
}
//Cmpulsory for file name manipulation
cInterfChantierNameManipulateur * aICNM = cInterfChantierNameManipulateur::BasicAlloc(aDir);
//Going through every pairs of different images
int cpt=0;
for (int aK1=0 ; aK1<int(aGrpVodka.size()) ; aK1++)
{
std::cout<<"Getting homologous points from: "<<aGrpVodka.aListIm[aK1]<<endl;
//Reading the image and creating the objects to be manipulated
Tiff_Im aTF1= Tiff_Im::StdConvGen(aDir + aGrpVodka.aListIm[aK1],1,false);
aSz = aTF1.sz();
Im2D_REAL16 aIm1(aSz.x,aSz.y);
ELISE_COPY
(
aTF1.all_pts(),
aTF1.in(),
aIm1.out()
);
REAL16 ** aData1 = aIm1.data();
for (int aK2=0 ; aK2<int(aGrpVodka.size()) ; aK2++)
{
Tiff_Im aTF2= Tiff_Im::StdConvGen(aDir + aGrpVodka.aListIm[aK2],1,false);
Im2D_REAL16 aIm2(aSz.x,aSz.y);
ELISE_COPY
(
aTF2.all_pts(),
aTF2.in(),
aIm2.out()
);
REAL16 ** aData2 = aIm2.data();
string prefixe="";
if (aK1!=aK2)
{
std::string aNamePack = aDir + aICNM->Assoc1To2
(
"NKS-Assoc-CplIm2Hom@"+prefixe + "@" + Extension,
aGrpVodka.aListIm[aK1],
aGrpVodka.aListIm[aK2],
true
);
bool Exist = ELISE_fp::exist_file(aNamePack);
if (Exist)
{
ElPackHomologue aPack = ElPackHomologue::FromFile(aNamePack);
for
(
ElPackHomologue::const_iterator itP=aPack.begin();
itP!=aPack.end();
itP++
)
{
cpt++;
//Compute the distance between the point and the center of the image
double x0=aSz.x/2-0.5;
double y0=aSz.y/2-0.5;
double Dist1=sqrt(pow(itP->P1().x-x0,2)+pow(itP->P1().y-y0,2));
double Dist2=sqrt(pow(itP->P2().x-x0,2)+pow(itP->P2().y-y0,2));
//Go looking for grey value of the point, adjusted to ISO and Exposure time induced variations
double Grey1 =sqrt((aGrpVodka.ExpTime[aK1]*aGrpVodka.ISO[aK1])/(maxExpTime*maxISO))*Reechantillonnage::biline(aData1, aSz.x, aSz.y, itP->P1());
double Grey2 =sqrt((aGrpVodka.ExpTime[aK2]*aGrpVodka.ISO[aK2])/(maxExpTime*maxISO))*Reechantillonnage::biline(aData2, aSz.x, aSz.y, itP->P2());
aPtsHomol.Dist1.push_back(Dist1);
aPtsHomol.Dist2.push_back(Dist2);
aPtsHomol.Gr1.push_back(Grey1);
aPtsHomol.Gr2.push_back(Grey2);
}
}
else
std::cout << " # NO PACK FOR : " << aNamePack << "\n";
}
}
}
int nbpts=aPtsHomol.size();
std::cout<<"Total number tie points: "<<nbpts<<" out of "<<cpt<<endl;
aPtsHomol.SZ=aSz;
return aPtsHomol;
}
