void cIncListInterv::AddInterv(const cIncIntervale & anInterv,bool CanOverlap)
{
if (anInterv.Sz()==0 )
return;
for (tCSetIII anIt = mMap.begin() ; anIt!= mMap.end() ; anIt++)
{
ELISE_ASSERT
(
anIt->Id() != anInterv.Id(),
"Ambiguous Key in cIncListInterv::AddInterv"
);
if (CanOverlap)
mMayOverlap = true;
else
{
ELISE_ASSERT
(
! (anInterv.Overlap(*anIt)),
"Overlapping interval in cIncListInterv::AddInterv"
);
}
}
mMap.insert(anInterv);
ElSetMin(mI0Min,anInterv.I0Alloc());
ElSetMax(mI1Max,anInterv.I1Alloc());
mSurf += anInterv.Sz();
}
cLineSortie_Convol::cLineSortie_Convol
(
cFiltreInterpol & aFiltre,
const cHomTr1D & aHom,
int aPixOut0,
int aPixOut1,
double aDilateF
) :
mPixOut0 (aPixOut0),
mPixOut1 (aPixOut1)
{
mVPSC.reserve(mPixOut1-mPixOut0);
mLargMax =0;
for (int aPixOut=mPixOut0 ; aPixOut<mPixOut1 ; aPixOut++)
{
mVPSC.push_back(cPixelSortie_Convol(aFiltre,aHom,aPixOut,aDilateF));
cPixelSortie_Convol & mPCur = mVPSC[mVPSC.size()-1];
ElSetMax(mLargMax,mPCur.PixIn1()-mPCur.PixIn0());
if (aPixOut==mPixOut0)
{
}
else
{
cPixelSortie_Convol & mPPrec = mVPSC[mVPSC.size()-2];
ELISE_ASSERT
(
mPCur.PixIn0()>=mPPrec.PixIn0()
&& (mPCur.PixIn1()>=mPPrec.PixIn1()),
"Incoherence in cPixelSortie_Convol"
);
}
}
mPixIn0 = mVPSC[0].PixIn0();
mPixIn1 = mVPSC.back().PixIn1();
}
void ComputeIntervaleDelta
(
INT & aDzMin,
INT & aDzMax,
INT aZ,
INT MaxDeltaZ,
INT aZ1Min,
INT aZ1Max,
INT aZ0Min,
INT aZ0Max
)
{
aDzMin = aZ0Min-aZ;
if (aZ != aZ1Min)
ElSetMax(aDzMin,-MaxDeltaZ);
aDzMax = aZ0Max-1-aZ;
if (aZ != aZ1Max-1)
ElSetMin(aDzMax,MaxDeltaZ);
// Si les intervalles sont vides, on relie
// les bornes des intervalles a tous les points
if (aDzMin > aDzMax)
{
if (aDzMax <0)
aDzMin = aDzMax;
else
aDzMax = aDzMin;
}
}
bool cOneImageOfLayer::LoadFileRed(const std::string & aNameRed)
{
if ( !ELISE_fp::exist_file(aNameRed))
return false;
mIm = Im2D_U_INT1::FromFileStd(aNameRed);
mTIm = TIm2D<U_INT1,INT>(mIm);
Pt2di aSzR = mIm.sz();
mLabMin = 1000000;
mLabMax = -1000000;
Pt2di aP;
for (aP.x=0 ; aP.x<aSzR.x; aP.x++)
{
for (aP.y=0 ; aP.y<aSzR.y; aP.y++)
{
int aLab = mTIm.get(aP);
if (aLab != mTheNoLayer)
{
ElSetMin(mLabMin,aLab);
ElSetMax(mLabMax,aLab);
}
}
}
std::cout << "Labels, Min: " << mLabMin << " , Max :" << mLabMax << "\n";
return true;
}
void HPoly
(
ActionSeg & Act,
ElFifo<Pt2dr> & f,
Pt2dr dir,
REAL esp
)
{
REAL omax = -1e50;
REAL omin = 1e50;
SegComp s0 (Pt2dr(0,0),dir);
for (INT k=0; k<f.nb() ; k++)
{
REAL ord = s0.ordonnee(f[k]);
ElSetMax(omax,ord);
ElSetMin(omin,ord);
}
for (REAL ord = round_up(omin/esp) *esp; ord<omax; ord += esp)
{
Pt2dr p0 = s0.from_rep_loc(Pt2dr(0.0,ord));
ClipSeg(Act,f,Seg2d(p0,p0+s0.tangente()));
}
}
void ElImplemDequantifier::TraitCuv ( U_INT2 * aDA,U_INT2 * aDB)
{
static std::vector<INT> Pts;
Pts.reserve(3000);
for (INT aP0=0; aP0<mNbPts ; aP0++)
{
if ((aDA[aP0] == eMaxDist) && (lDQ[aP0] != eValOut) )
{
Pts.push_back(aP0);
aDA[aP0] = eMaxDist-1;
INT aK = 0;
INT NbV = 0;
INT SigmaDV = 0;
INT aDmaxB = 0;
while (aK != INT (Pts.size()))
{
INT aP = Pts[aK];
ElSetMax(aDmaxB,aDB[aP]);
for (INT aKV =0 ; aKV < mNbVYT ; aKV++)
{
INT aPV = aP + mVYT[aKV];
if (lDQ[aPV] == eValOut)
{
}
else if (aDA[aPV] == eMaxDist)
{
Pts.push_back(aPV);
aDA[aPV] = eMaxDist-1;
}
else if (aDA[aPV] < eMaxDist-1)
{
NbV++;
SigmaDV += aDB[aPV];
}
}
aK++;
}
REAL DMoy = SigmaDV/REAL( NbV);
for (aK =0 ; aK<INT(Pts.size()) ; aK++)
{
INT aP = Pts[aK];
INT aD = aDB[aP];
REAL aPds = (2*aD*aDmaxB - ElSquare(aD))/REAL (aDmaxB*(aDmaxB+DMoy));
aDB[aP] = round_ni(aPds*10000);
aDA[aP] = 10000 - aDB[aP];
}
Pts.clear();
}
}
}
bool cImage::PIMsValideVis(const Pt3dr & aPTer)
{
if (mPImsNuage==0) return true;
Pt2dr aPIm = mPImsNuage->Terrain2Index(aPTer);
Pt2di aIPIm = round_ni(aPIm);
double aProfMax= -1e20;
double aProfMin= 1e20;
int aDil = round_up(mPNSeuilPlani);
for (int aDx= -aDil ; aDx <= aDil ; aDx++)
{
for (int aDy= -aDil ; aDy <= aDil ; aDy++)
{
Pt2di aPVois(aIPIm.x+aDx,aIPIm.y+aDy);
if ((mPImsNuage->IndexHasContenu(aPVois)) && (euclid(Pt2dr(aPVois)-aPIm)<mPNSeuilPlani))
{
double aProfNu = mPImsNuage->ProfEnPixel(aPVois);
ElSetMax(aProfMax,aProfNu);
ElSetMin(aProfMin,aProfNu);
}
}
}
Pt3dr aTerInNu = mPImsNuage->Euclid2ProfPixelAndIndex(aPTer);
double aProfTer = aTerInNu.z;
return (aProfTer >= (aProfMin-mPNSeuilAlti)) && (aProfTer<=(aProfMax+mPNSeuilAlti));
/*
std::cout << "Valll BBBBBBB\n";
if (! aEnv->IndexHasContenuForInterpol(aPIm))
{
// A Parametrer eventuellement
return false;
}
Pt3dr aTerInNu = aEnv->Euclid2ProfPixelAndIndex(aPTer);
double aProfTer = aTerInNu.z;
double aProfNu = aEnv->ProfInterpEnPixel(aPIm);
bool isDessus = (aProfTer >= aProfNu);
std::cout << "Valll CCCCCCC " << aProfTer << " " << aProfNu << " \n";
return aMin ? isDessus : (! isDessus);
*/
return false;
}
void SystLinSurResolu::AdjustSizeCapa()
{
if ((mNbVarCur<=mNbVarCapa) && (mNbEqCur<=mNbEqCapa))
return;
if (mNbVarCur > mNbVarCapa)
ElSetMax(mNbVarCapa,ElMax(2*mNbVarCapa,mNbVarCur));
if (mNbEqCur>mNbEqCapa)
ElSetMax( mNbEqCapa,ElMax(2*mNbEqCapa, mNbEqCur));
mA = mA.AugmentSizeTo(Pt2di(mNbVarCapa,mNbEqCapa),0.0);
mDataA = mA.data();
mB = mB.AugmentSizeTo(mNbEqCapa,0.0);
mDataB = mB.data();
mPds = mPds.AugmentSizeTo(mNbEqCapa,1.0);
mDataPds = mPds.data();
}
double cElPolygone::DiamSimple() const
{
tContour aC = ContSMax();
double aD2Max = 0.0;
for (int aK1 = 0 ; aK1 <int(aC.size()); aK1++)
for (int aK2 = aK1+1 ; aK2 <int(aC.size()); aK2++)
{
ElSetMax(aD2Max,square_euclid(aC[aK1],aC[aK2]));
}
return sqrt(aD2Max);
}
void cPushB_PhysMod::CoherARGlob(int aNbPts,double & aMoyCoh,double & aMaxCoh) const
{
aMoyCoh = 0.0;
aMaxCoh = 0.0;
for (int anX=0 ; anX<=aNbPts ; anX++)
{
for (int anY=0 ; anY<=aNbPts ; anY++)
{
Pt2dr aPIm( (double(anX)*mSz.x)/aNbPts , (double(anY)*mSz.y)/aNbPts);
double aCoh = CoherAR(aPIm);
aMoyCoh += aCoh;
ElSetMax(aMaxCoh,aCoh);
}
}
aMoyCoh /= ElSquare(1+2*aNbPts);
}
double cObservLiaison_1Cple::AddObs
(
const cPonderationPackMesure & aPPM,
const cPonderationPackMesure * aPPMSurf
)
{
if (mEqS)
{
ELISE_ASSERT(aPPMSurf!=0,"No Pond for contrainte-surface");
}
cPonderateur aPdrtIm(aPPM,mPack.size());
cPonderateur aPdrtSurf = aPdrtIm; // Pb d'init
if (mEqS)
{
aPdrtSurf = cPonderateur(*aPPMSurf,mPack.size());
}
double aS1=0;
double aSEr2=0;
double aSomPdsSurf = 0;
mEcMax = 0.0;
for
(
ElPackHomologue::tCstIter itL=mPack.begin();
itL!=mPack.end();
itL++
)
{
if (true)
{
double aNb = itL->Pds() * mMultPds;
std::vector<double> aVPds;
aVPds.push_back(1.0);
aVPds.push_back(1.0);
//const std::vector<Pt2dr> & aPTers = mPLiaisTer->ResiduPointLiaison(*itL,&aPInter);
const cResiduP3Inc & aRes = mPLiaisTer->UsePointLiaison(cArg_UPL(0),-1,-1,0.0,*itL,aVPds,false);
double aResidu = (square_euclid(aRes.mEcIm[0])+square_euclid(aRes.mEcIm[1]));
ElSetMax(mEcMax,sqrt(aResidu));
double aPdsIm = aPdrtIm.PdsOfError(sqrt(aResidu));
aVPds[0]= (aPdsIm*aNb);
aVPds[1]= (aPdsIm*aNb);
double aPdsSurf = 0;
if (mEqS)
{
aPdsSurf = aPdrtSurf.PdsOfError(ElAbs(aRes.mEcSurf)) *aNb;
}
aSomPdsSurf += aPdsSurf;
mPLiaisTer->UsePointLiaison(cArg_UPL(0),-1,-1,aPdsSurf,*itL,aVPds,true);
aSEr2 += aResidu * aNb;
aS1 += aNb;
if (int(aPPM.Show().Val()) >= int(eNSM_Indiv))
std::cout << "RLiais = " << sqrt(aResidu) << " pour P1 " << itL->P1() << "\n";
mPose1->AddPMoy(itL->P1(),aRes.mPTer,aRes.mBSurH);
mPose2->AddPMoy(itL->P2(),aRes.mPTer,aRes.mBSurH);
}
}
aSEr2 /= aS1;
if (int(aPPM.Show().Val()) >= int(eNSM_Paquet))
{
if (mEqS)
std::cout << "PDS Surf = " << aSomPdsSurf << "\n";
std::cout << "| | | RESIDU LIAISON (pixel) = Ter-Im :" << sqrt(aSEr2)
<< " pour [" << mIm1 << "/" << mIm2 << "]"
<< " Max = " << mEcMax
<< "\n";
}
// getchar();
return aSEr2 ;
}
void Scale_Im_Compr<TObj,TLut,TInd>::DoItReduce()
{
ElTimer aTimer;
for (INT wy=this->_pW0.y; wy<this->_pW1.y; wy++)
{
INT yU0 = round_down(this->y_to_user(wy-0.5));
INT yU1 = round_up(this->y_to_user(wy+0.5));
ElSetMax(yU0,0);
ElSetMin(yU1,this->_SzU.y-1);
for (INT ux= this->_pW0.x -(Scale_Im_Compr<TObj,TLut,TInd>::RAB) ;
ux<this->_pW1.x +(Scale_Im_Compr<TObj,TLut,TInd>::RAB); ux++)
this->_l0[ux] = 0;
INT pdsTot = 0;
if (yU0<yU1)
{
for (INT uy= yU0; uy<=yU1 ; uy++)
{
REAL yW0 = std::max(this->y_to_window(uy-0.5),wy-0.5);
REAL yW1 = std::min(this->y_to_window(uy+0.5),wy+0.5);
INT pds = round_ni((yW1-yW0) * this->_CoeffPds);
if (pds > 0)
{
pdsTot += 0;
_CurPds = pds;
DeCompr
(
_dim->lpckb(uy),
*this,
this->_xU0,
this->_xU1,
_dim->per()
);
pdsTot += pds;
}
}
if (pdsTot)
{
{
for (INT ux= this->_pW0.x ; ux<this->_pW1.x +(Scale_Im_Compr<TObj,TLut,TInd>::RAB) ; ux++)
this->_l0[ux] += this->_l0[ux-1];
}
INT pxy = pdsTot * this->_CoeffPds;
{
for (INT ux= this->_pW0.x ; ux<this->_pW1.x ; ux++)
this->_l0[ux] /= pxy;
}
mTimeUnCompr += aTimer.uval();
RasterUseLine
(
Pt2di(this->_pW0.x,wy),
Pt2di(this->_pW1.x,wy+1),
this->_line
);
aTimer.reinit();
}
}
}
}
void Optim_L1FormLin::CombinConjMinLoc
(
ElFilo<REAL>& dic,
ElFilo<INT> & Subset,
ElFilo<INT> & FlagPos
)
{
CPT ++;
INT NbF = (1<<_NbForm);
for (INT k=dic.nb() ;k<NbF ; k++)
dic.pushlast(1e20);
FlagPos.clear();
CombinConjMinLoc(dic,Subset,FlagPos,0,0,0);
INT NbMin0 =0;
INT NbMin1 =0;
REAL M0 = 1e80,M1 = -1e80;
{
for (INT k=0 ; k< FlagPos.nb(); k++)
{
REAL VN = TestNeighConjMinLoc(FlagPos[k],dic);
REAL V0 = dic[FlagPos[k]];
if (V0 < VN)
NbMin0 ++;
if (V0 <= VN)
{
NbMin1 ++;
ElSetMin(M0,V0);
ElSetMax(M1,V0);
}
/*
{
show_flag(FlagPos[k]);
cout << " : " << dic[FlagPos[k]];
if (V0 <= VN)
cout << " ** ";
cout << "\n";
}
*/
}
}
/*
if ((NbMin0!=1) || (NbMin1!=1))
cout << NbMin0 << " " << NbMin1 << "\n";
*/
BENCH_ASSERT(NbMin0 <= 1);
BENCH_ASSERT(NbMin1 >= 1);
cout << "MINS = " << M0 << " " << M1 << "\n";
BENCH_ASSERT(std::abs(M0-M1)<epsilon);
{
for (INT k=0 ; k< FlagPos.nb(); k++)
dic[FlagPos[k]] = 1e20;
}
}
cElNuageLaser::cElNuageLaser
(
const std::string & aNameFile,
const char * aNameOri,
const char * aNameGeomCible ,
const char * aNameGeomInit
) :
mVPts (),
mQt (0)
{
std::string aNameBin = StdPrefix(aNameFile) + ".tif";
if (! ELISE_fp::exist_file(aNameBin))
{
INT aNb = 3;
FILE * aFP = ElFopen(aNameFile.c_str(),"r");
ELISE_ASSERT(aFP!=0,"Cannot Open File for Laser Data");
char Buf[10000];
INT aCpt =0;
while (aNb>=3)
{
aNb=0;
char * got = fgets(Buf,10000,aFP);
Pt3dr aP;
if (got)
{
aNb = sscanf(Buf,"%lf %lf %lf",&aP.x,&aP.y,&aP.z);
}
if (aNb>=3)
mVPts.push_back(aP);
aCpt++;
}
INT aNbPts = (INT) mVPts.size();
Im2D_REAL8 aImPts(aNbPts,3);
REAL ** aData = aImPts.data();
for (INT aK=0 ; aK<aNbPts ; aK++)
{
Pt3dr aP = mVPts[aK];
aData[0][aK] = aP.x;
aData[1][aK] = aP.y;
aData[2][aK] = aP.z;
}
Tiff_Im aFile
(
aNameBin.c_str(),
Pt2di(aNbPts,3),
GenIm::real8,
Tiff_Im::No_Compr,
Tiff_Im::BlackIsZero,
Tiff_Im::Empty_ARG
+ Arg_Tiff(Tiff_Im::ANoStrip())
);
ELISE_COPY(aImPts.all_pts(),aImPts.in(),aFile.out());
}
else
{
Tiff_Im aFile(aNameBin.c_str());
Pt2di aSz = aFile.sz();
Im2D_REAL8 aImPts(aSz.x,aSz.y);
ELISE_COPY(aImPts.all_pts(),aFile.in(),aImPts.out());
REAL ** aD = aImPts.data();
mVPts.reserve(aSz.x);
for (INT aK=0 ; aK<aSz.x ; aK++)
{
Pt3dr aP(aD[0][aK],aD[1][aK],aD[2][aK]);
mVPts.push_back(aP);
}
}
Ori3D_Std * aOri = 0;
eModeConvGeom aMode = eConvId;
if (aNameOri)
{
if (!strcmp(aNameGeomInit,"GeomCarto"))
{
if (!strcmp(aNameGeomCible,"GeomCarto"))
{
aMode = eConvId;
}
else if (!strcmp(aNameGeomCible,"GeomTerrain"))
{
aMode = eConvCarto2Terr;
}
else if (!strcmp(aNameGeomCible,"GeomTerIm1"))
{
aMode = eConvCarto2TerIm;
}
else
{
ELISE_ASSERT(false,"Bad GeomCible in cElNuageLaser::cElNuageLaser");
}
}
else
{
ELISE_ASSERT(false,"Bad GeomInit in cElNuageLaser::cElNuageLaser");
}
if (aMode != eConvId)
aOri = new Ori3D_Std (aNameOri) ;
}
for (INT aK=0 ; aK<INT( mVPts.size()); aK++)
{
Pt3dr aP = mVPts[aK];
if (aOri)
{
if (aMode == eConvCarto2Terr)
aP = aOri->carte_to_terr(aP);
else if (aMode == eConvCarto2TerIm)
{
aP = aOri->carte_to_terr(aP);
Pt2dr aP2 = aOri->to_photo(aP);
aP.x = aP2.x;
aP.y = aP2.y;
}
mVPts[aK] = aP;
}
REAL aZ = aP.z;
Pt2dr aP2 (aP.x,aP.y);
if (aK==0)
{
mZMax = mZMin = aZ;
mPInf =mPSup = aP2;
}
ElSetMin(mZMin,aZ);
ElSetMax(mZMax,aZ);
mPInf.SetInf(aP2);
mPSup.SetSup(aP2);
}
delete aOri;
}
void UpdateSize(unsigned int sz)
{
ElSetMax(sz_buf,sz);
}
GMCube::GMCube(std::string aName) :
mP0 (0,0),
mSz (20000,20000),
aFp ( aName.c_str(),ELISE_fp::READ),
mX0 ( aFp.read_REAL8()),
mY0 ( aFp.read_REAL8()),
mZ0 ( aFp.read_REAL8()),
mStepXY ( aFp.read_REAL8()),
mStepZ ( aFp.read_REAL8()),
mTx ( aFp.read_INT4()),
mTy ( aFp.read_INT4()),
mTz ( aFp.read_INT4()),
mIZmin ( mTx, mTy),
mIZmax ( mTx, mTy),
mZoom (1.0),
mW (Video_Win::WStd(Pt2di(mTx,mTy),mZoom)),
mW2 (Video_Win::WStd(Pt2di(mTx,mTy),mZoom)),
mW3 (Video_Win::WStd(Pt2di(200,100),mZoom)),
mW4 (Video_Win::WStd(Pt2di(mTx,mTy),mZoom)),
mDisp (mW2.disp())
{
mSz = Inf(mSz,Pt2di(mTx,mTy));
INT aNbZ =0;
long aDeb = aFp.tell();
INT aMaxZ =0;
INT aVMax = -1000000;
INT aVMin = 100000;
for(INT y=0;y<mTy;++y)
{
for(INT x=0;x<mTx;++x)
{
INT2 zM = aFp.read_INT2();
INT2 aN = aFp.read_INT2();
mIZmin.data()[y][x] = zM;
mIZmax.data()[y][x] = zM+aN;
ElSetMax(aMaxZ ,(INT) aN);
for (INT z=0 ; z<aN ; z++)
{
INT2 aVal = aFp.read_INT2();
ElSetMin(aVMin,aVal);
ElSetMax(aVMax,aVal);
}
aNbZ += aN;
}
}
cout << "NbZ = " << aNbZ << " " << mStepZ << "\n";
pSCA = cInterfaceCoxAlgo::StdNewOne
(
mSz,
trans(mIZmin.in(),mP0),
trans(mIZmax.in(),mP0),
2,
true
);
cout << "AAAAAAAAAAAAa\n";
aFp.seek_begin(aDeb);
Im2D_INT2 zCor(mTx,mTy);
Im2D_U_INT1 CorMax(mTx,mTy);
for(INT y=0;y<mTy;++y)
{
for(INT x=0;x<mTx;++x)
{
INT2 z1 = aFp.read_INT2();
INT2 z2 = z1+aFp.read_INT2();
INT cMax = -100000;
INT zMax = z1;
bool OkP2 = (x>=mP0.x) && (x<mP0.x+mSz.x) && (y>=mP0.y) && (y<mP0.y+mSz.y);
for (INT z=z1 ; z<z2 ; z++)
{
INT2 aVal = aFp.read_INT2();
if (aVal > cMax)
{
cMax = aVal;
zMax = z;
}
aVal = round_ni((aVMax-aVal)/(aVMax/100.0));
if (OkP2)
pSCA->SetCost(Pt3di(x-mP0.x,y-mP0.y,z),aVal);
}
zCor.data()[y][x] = zMax;
CorMax.data()[y][x] = (INT)(255 * (1.0-cMax/900.0));
}
}
cout << "VALS = [" << aVMin << " , " << aVMax << "]\n";
ELISE_COPY(zCor.all_pts(),CorMax.in(),mW.ogray());
ELISE_COPY(zCor.all_pts(),zCor.in(),mW2.ogray());
}
void cPushB_PhysMod::PostInitLinesPB()
{
mMoyRay = 0;
mMoyAlt = 0;
for (int aK=0 ; aK<= mSzGeoL.y ; aK++)
{
double anY = (mSwapXY ? mSz.x : mSz.y) * (aK/double(mSzGeoL.y));
cPushB_GeomLine * aLPB = new cPushB_GeomLine(this,mSzGeoL.x,anY);
mLinesPB.push_back(aLPB);
mMoyRay += euclid(aLPB->Center());
mMoyAlt += euclid(aLPB->Center()) - TheRayTerre;
}
mMoyRay /= mLinesPB.size();
mMoyAlt /= mLinesPB.size();
mPeriod = sqrt((4*ElSquare(PI) * pow(mMoyRay,3)) / (TheCsteGravi*TheMasseTerre));
double aDist = euclid(mLinesPB.front()->CUnRot()-mLinesPB.back()->CUnRot());
double aTeta = 2 * asin((aDist/2.0) / mMoyRay);
mDureeAcq = mPeriod * (aTeta/ (2*PI));
// Tentative de correction de la rotation de la terre pour retrouber une trajectoire plane
for (int aK=0 ; aK< int(mLinesPB.size()) ; aK++)
{
Pt3dr aC = mLinesPB[aK]->Center();
aC = cSysCoord::WGS84Degre()->FromGeoC(aC);
aC.x += 360.0 * (double(aK)/mLinesPB.size() ) * (mDureeAcq/(24*3600.0));
aC = cSysCoord::WGS84Degre()->ToGeoC(aC);
mLinesPB[aK]->CUnRot() = aC;
}
// Stat sur les indicateurs
mMoyRes = 0;
mMaxRes = 0;
mMoyPlan = 0;
mMaxPlan = 0;
for (int aK=0 ; aK<int(mLinesPB.size()) ; aK++)
{
cPushB_GeomLine * aLPB = mLinesPB[aK];
mMoyRes += aLPB->MoyResiduCenter();
ElSetMax(mMaxRes,aLPB->MaxResiduCenter());
mMoyPlan += aLPB->MoyDistPlan();
ElSetMax(mMaxPlan,aLPB->MaxDistPlan());
}
// Calcul de la calibration
mCalib = mLinesPB[0]->Calib();
int aNbC = (int)mCalib.size();
for (int aKL=1 ; aKL< int(mLinesPB.size()) ; aKL++)
{
const std::vector<double> aCalK = mLinesPB[aKL]->Calib();
ELISE_ASSERT(aNbC==int(aCalK.size()),"Incohe size of Calib in cPushB_PhysMod::PostInitLinesPB");
for (int aKC=0 ; aKC<aNbC ; aKC++)
{
mCalib[aKC] += aCalK[aKC];
}
}
// double a
mMoyCalib = 0.0;
mMaxCalib = 0.0;
for (int aKC=0 ; aKC<aNbC ; aKC++)
{
mCalib[aKC] /= mLinesPB.size();
for (int aKL=0 ; aKL< int(mLinesPB.size()) ; aKL++)
{
double anEr = ElAbs(mCalib[aKC]-mLinesPB[aKL]->Calib()[aKC]);
ElSetMax(mMaxCalib,anEr);
mMoyCalib += anEr;
}
}
mMoyCalib /= aNbC * mLinesPB.size();
}
