// do partitions on each variable selected in the redundent group
void RddtClust::doPartitions(){
DoubleVector dimData;
this->m_partitionPerVariable.clear();
//m_OkcData->GetDimensionData(&dimData,);
for(unsigned i = 0; i<this->m_nRddtDims.size(); i++){
dimData.clear();
this->getDimData(dimData,m_nRddtDims[i]);
//this->m_rddtOp->getOkcData()->
//GetDimensionData(dimData,m_nRddtDims[i]);
DataPartitions* partitions = new DataPartitions();
partitions->setRddtClust(this);
partitions->setVarIdx(m_nRddtDims[i]);
partitions->cutData(dimData);
m_partitionPerVariable.push_back(partitions);
}
for(unsigned i = 0; i<this->m_rddtDims.size(); i++){
dimData.clear();
//this->m_rddtOp->getOkcData()->
//GetDimensionData(dimData,m_rddtDims[i]);
//dimData.clear();
this->getDimData(dimData,m_rddtDims[i]);
DataPartitions* partitions = new DataPartitions();
partitions->setRddtClust(this);
partitions->setVarIdx(m_rddtDims[i]);
partitions->cutData(dimData);
m_partitionPerVariable.push_back(partitions);
}
}
TEST(String,NumFractionalDigits) {
DoubleVector values;
values.push_back(128196.198);
values.push_back(19671.281);
values.push_back(218528.28);
values.push_back(192.186);
std::pair<unsigned,unsigned> result = numFractionalDigits(values,3u);
EXPECT_EQ(0u,result.first); EXPECT_EQ(0u,result.second);
result = numFractionalDigits(values,4u);
EXPECT_EQ(0u,result.first); EXPECT_EQ(1u,result.second);
result = numFractionalDigits(values,7u);
EXPECT_EQ(1u,result.first); EXPECT_EQ(4u,result.second);
values.clear();
values.push_back(0.189678);
values.push_back(0.001869168);
values.push_back(0.7198);
result = numFractionalDigits(values,2u);
EXPECT_EQ(2u,result.first); EXPECT_EQ(4u,result.second);
result = numFractionalDigits(values,8u);
EXPECT_EQ(8u,result.first); EXPECT_EQ(10u,result.second);
values.clear();
values.push_back(0.07592);
values.push_back(198.82);
values.push_back(210.28);
values.push_back(0.628);
result = numFractionalDigits(values,2u);
EXPECT_EQ(0u,result.first); EXPECT_EQ(3u,result.second);
result = numFractionalDigits(values,3u);
EXPECT_EQ(0u,result.first); EXPECT_EQ(4u,result.second);
result = numFractionalDigits(values,5u);
EXPECT_EQ(2u,result.first); EXPECT_EQ(6u,result.second);
values.clear();
values.push_back(0.0);
result = numFractionalDigits(values,2u);
EXPECT_EQ(1u,result.first); EXPECT_EQ(1u,result.second);
result = numFractionalDigits(values,5u);
EXPECT_EQ(4u,result.first); EXPECT_EQ(4u,result.second);
}
int main(int argc, char **argv)
{
std::string cornerString=" 0.1 0.1 0.1 20 20 10";
typedef boost::tokenizer<boost::char_separator<char> > Tokenizer;
typedef std::vector<double> DoubleVector;
typedef boost::tokenizer<boost::char_separator<char> >::iterator TokIterator;
boost::char_separator<char> sep(", ");
Tokenizer tok(cornerString, sep);
DoubleVector corners;
corners.clear();
for (TokIterator it=tok.begin(); it!=tok.end(); ++it ) {
double q;
printf("");
sscanf(it->c_str(), "%lf", &q);
//DPrintf(DebugReaction," %lf ['%s']; ", q, it->c_str());
corners.push_back( q );
}
printf("the corners are:\n ");
printf("%e", corners[0]);
for(int i=1; i<corners.size(); ++i ) {
printf(", %e", corners[i]);
}
printf("\n");
}
void RRSchedule::init2DEmpty(DoubleVector &_invect, int row, int col)
{
_invect.clear();
_invect.resize(row);
for (int i = 0; i < row; i++)
allocate1D(_invect[i], col);
}
void RateMeyerHaeseler::getRates(DoubleVector &rates) {
rates.clear();
if (empty()) {
rates.resize(phylo_tree->aln->size(), 1.0);
} else {
rates.insert(rates.begin(), begin(), end());
}
}
void Fresnel::spiral (DoubleVector &spiralX, DoubleVector &spiralY) const
{
spiralX.clear ();
spiralY.clear ();
spiralX.push_back (0.0);
spiralY.push_back (0.0);
Complex sp;
int fn = currentFresnelNumber;
double R = holeRadius;
double b = observerDistance;
double b2 = b * b;
double innerR = 0.0;
double outerR = 0.0;
double innerD = b;
double outerD = 0.0;
double dd = 0.0;
for (int n = 0; n < fn + 1; ++n) {
outerR = zoneOuterRadius (n);
outerD = sqrt (outerR*outerR + b2);
dd = (outerD - innerD) / accuracySpiral;
bool stop = false;
for (int i = 0; i < accuracySpiral && !stop; ++i) {
innerR = sqrt (innerD*innerD - b2);
innerD += dd;
outerR = sqrt (innerD*innerD - b2);
if (outerR >= R) {
outerR = R;
stop = true;
}
sp += amplitude (innerR, outerR);
spiralX.push_back (sp.im);
spiralY.push_back (sp.re);
}
}
}
void RddtClust::getDimData(DoubleVector& dimData, int idx){
using namespace Rcpp;
XmdvToolMainWnd* m_mwd = this->m_rddtOp->m_pm->getMainWnd();
RInside r = m_mwd->getRinstance();
//qDebug()<<"idx qt "<<idx;
r["currentDim"] = idx;
std::string cmd = "currentDim <- as.integer(currentDim)+1;\n"
//"print(currentDim);\n"
"dimData <- M[,currentDim];\n"
"dimData";
SEXP evals = r.parseEval(cmd);
NumericVector rDimData(evals);
dimData.clear();
for(int i = 0; i< rDimData.length(); i++){
dimData.push_back(rDimData[i]);
}
}
void Example1::runge_kutta(OrdDifEquation *ode, double x0, double y0, unsigned int N, DoubleVector &y, double h)
{
double k1 = 0.0;
double k2 = 0.0;
double k3 = 0.0;
double k4 = 0.0;
y.clear();
y.resize(N+1,0.0);
y[0] = y0;
for (unsigned int i=0; i<N; i++)
{
double _x = x0 + i*h;
double _y = y[i];
k1 = ode->fx(_x, _y);
k2 = ode->fx(_x+h/2.0, _y+(h/2.0)*k1);
k3 = ode->fx(_x+h/2.0, _y+(h/2.0)*k2);
k4 = ode->fx(_x+h, _y+h*k3);
y[i+1] = y[i] + (h/6.0) * (k1 + 2.0*k2 + 2.0*k3 + k4);;
}
}
void IFunctional::toVector(const Parameter &prm, DoubleVector &pv) const
{
unsigned int Lc = prm.Lc;
unsigned int Lo = prm.Lo;
//unsigned int length = 0;
//if (optimizeK) length += Lc*Lo;
//if (optimizeZ) length += Lc*Lo;
//if (optimizeC) length += 2*Lc;
//if (optimizeO) length += 2*Lo;
pv.clear();
pv.resize(2*Lc*Lo+2*Lo+2*Lc);
//if (optimizeK)
{
for (unsigned int i=0; i<Lc; i++)
{
for (unsigned int j=0; j<Lo; j++)
{
pv[i*Lo + j] = prm.k[i][j];
}
}
}
//if (optimizeZ)
{
for (unsigned int i=0; i<Lc; i++)
{
for (unsigned int j=0; j<Lo; j++)
{
pv[i*Lo + j + Lc*Lo] = prm.z[i][j];
}
}
}
//if (optimizeO)
{
for (unsigned int j=0; j<Lo; j++)
{
pv[2*j + 0 + 2*Lc*Lo] = prm.xi[j].x;
pv[2*j + 1 + 2*Lc*Lo] = prm.xi[j].y;
}
}
//if (optimizeC)
{
for (unsigned int i=0; i<Lc; i++)
{
pv[2*i + 0 + 2*Lo + 2*Lc*Lo] = prm.eta[i].x;
pv[2*i + 1 + 2*Lo + 2*Lc*Lo] = prm.eta[i].y;
}
}
// for (unsigned int i=0; i<Lc; i++)
// {
// x[2*i + 0 + 2*Lc*Lo] = prm.eta[i].x;
// x[2*i + 1 + 2*Lc*Lo] = prm.eta[i].y;
// for (unsigned int j=0; j<Lo; j++)
// {
// x[i*Lo + j] = prm.k[i][j];
// x[i*Lo + j + Lc*Lo] = prm.z[i][j];
// x[2*j + 0 + 2*Lc + 2*Lc*Lo] = prm.xi[j].x;
// x[2*j + 1 + 2*Lc + 2*Lc*Lo] = prm.xi[j].y;
// }
// }
}
void IFunctional::gradient(const DoubleVector &pv, DoubleVector &g) const
{
IFunctional *ifunc = const_cast<IFunctional*>(this);
unsigned int L = mTimeDimension.sizeN();
double ht = mTimeDimension.step();
ifunc->fromVector(pv, ifunc->mParameter);
forward->setParameter(mParameter);
backward->setParameter(mParameter);
DoubleMatrix u;
DoubleMatrix p;
vector<ExtendedSpaceNode2D> u_info;
forward->calculateMVD(u, u_info, true);
backward->u = &u;
backward->U = &ifunc->U;
backward->info = &u_info;
vector<ExtendedSpaceNode2D> p_info;
backward->calculateMVD(p, p_info, true);
g.clear();
g.resize(pv.length(), 0.0);
unsigned int gi = 0;
// k
if (optimizeK)
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
ExtendedSpaceNode2D &pi = p_info[i];
for (unsigned int j=0; j<mParameter.Lo; j++)
{
ExtendedSpaceNode2D &uj = u_info[j];
double grad_Kij = 0.0;
grad_Kij += 0.5 * (pi.value(0)+2.0*r*gpi(i,0,u_info)*sgn(g0i(i,0,u_info))) * (uj.value(0) - mParameter.z.at(i,j));
for (unsigned int m=1; m<=L-1; m++)
{
grad_Kij += (pi.value(m)+2.0*r*gpi(i,m,u_info)*sgn(g0i(i,m,u_info))) * (uj.value(m) - mParameter.z.at(i,j));
}
grad_Kij += 0.5 * (pi.value(L)+2.0*r*gpi(i,L,u_info)*sgn(g0i(i,L,u_info))) * (uj.value(L) - mParameter.z.at(i,j));
grad_Kij *= -ht;
g[gi++] = grad_Kij + 2.0*regEpsilon*(mParameter.k.at(i,j) - mParameter0.k.at(i,j));
}
}
}
else
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
for (unsigned int j=0; j<mParameter.Lo; j++)
{
g[gi++] = 0.0;
}
}
}
// z
if (optimizeZ)
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
ExtendedSpaceNode2D &pi = p_info[i];
for (unsigned int j=0; j<mParameter.Lo; j++)
{
double grad_Zij = 0.0;
grad_Zij += 0.5 * (pi.value(0)+2.0*r*gpi(i,0,u_info)*sgn(g0i(i,0,u_info))) * mParameter.k.at(i,j);
for (unsigned int m=1; m<=L-1; m++)
{
grad_Zij += (pi.value(m)+2.0*r*gpi(i,m,u_info)*sgn(g0i(i,m,u_info))) * mParameter.k.at(i,j);
}
grad_Zij += 0.5 * (pi.value(L)+2.0*r*gpi(i,L,u_info)*sgn(g0i(i,L,u_info))) * mParameter.k.at(i,j);
grad_Zij *= ht;
g[gi++] = grad_Zij + 2.0*regEpsilon*(mParameter.z[i][j] - mParameter0.z[i][j]);
}
}
}
else
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
for (unsigned int j=0; j<mParameter.Lo; j++)
{
g[gi++] = 0.0;
}
}
}
// xi
if (optimizeO)
{
for (unsigned int j=0; j<mParameter.Lo; j++)
{
ExtendedSpaceNode2D &uj = u_info[j];
double gradXijX = 0.0;
double gradXijY = 0.0;
double vi = 0.0;
vi = 0.0;
for (unsigned int i=0; i<mParameter.Lc; i++) vi += mParameter.k.at(i,j) * (p_info[i].value(0)+2.0*r*gpi(i,0,u_info)*sgn(g0i(i,0,u_info)));
gradXijX += 0.5 * uj.valueDx(0) * vi;
gradXijY += 0.5 * uj.valueDy(0) * vi;
for (unsigned int m=1; m<=L-1; m++)
{
vi = 0.0;
for (unsigned int i=0; i<mParameter.Lc; i++) vi += mParameter.k.at(i,j)*(p_info[i].value(m)+2.0*r*gpi(i,m,u_info)*sgn(g0i(i,m,u_info)));
gradXijX += uj.valueDx(m) * vi;
gradXijY += uj.valueDy(m) * vi;
}
vi = 0.0;
for (unsigned int i=0; i<mParameter.Lc; i++) vi += mParameter.k.at(i,j)*(p_info[i].value(L)+2.0*r*gpi(i,L,u_info)*sgn(g0i(i,L,u_info)));
gradXijX += 0.5 * uj.valueDx(L) * vi;
gradXijY += 0.5 * uj.valueDy(L) * vi;
gradXijX *= -ht;
gradXijY *= -ht;
g[gi++] = gradXijX + 2.0*regEpsilon*(mParameter.xi[j].x - mParameter0.xi[j].x);
g[gi++] = gradXijY + 2.0*regEpsilon*(mParameter.xi[j].y - mParameter0.xi[j].y);
}
}
else
{
for (unsigned int j=0; j<mParameter.Lo; j++)
{
g[gi++] = 0.0;
g[gi++] = 0.0;
}
}
// eta
if (optimizeC)
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
ExtendedSpaceNode2D &pi = p_info[i];
double grad_EtaiX = 0.0;
double grad_EtaiY = 0.0;
double vi = 0.0;
vi = 0.0;
for (unsigned int j=0; j<mParameter.Lo; j++) vi += mParameter.k.at(i,j) * (u_info[j].value(0) - mParameter.z.at(i,j));
grad_EtaiX += 0.5 * pi.valueDx(0) * vi;
grad_EtaiY += 0.5 * pi.valueDy(0) * vi;
for (unsigned int m=1; m<=L-1; m++)
{
vi = 0.0;
for (unsigned int j=0; j<mParameter.Lo; j++) vi += mParameter.k.at(i,j) * (u_info[j].value(m) - mParameter.z.at(i,j));
grad_EtaiX += pi.valueDx(m) * vi;
grad_EtaiY += pi.valueDy(m) * vi;
}
vi = 0.0;
for (unsigned int j=0; j<mParameter.Lo; j++) vi += mParameter.k.at(i,j) * (u_info[j].value(L) - mParameter.z.at(i,j));
grad_EtaiX += 0.5 * pi.valueDx(L) * vi;
grad_EtaiY += 0.5 * pi.valueDy(L) * vi;
grad_EtaiX *= -ht;
grad_EtaiY *= -ht;
g[gi++] = grad_EtaiX + 2.0*regEpsilon*(mParameter.eta[i].x - mParameter0.eta[i].x);
g[gi++] = grad_EtaiY + 2.0*regEpsilon*(mParameter.eta[i].y - mParameter0.eta[i].y);
}
}
else
{
for (unsigned int i=0; i<mParameter.Lc; i++)
{
g[gi++] = 0.0;
g[gi++] = 0.0;
}
}
u_info.clear();
p_info.clear();
}
void NucleusGridFunction::
readParameterFile( ParameterReader ¶ms )
{
//read:
// nucleus type=none, file, box, sphere
// nucleus file= <file.cwn>
// nucleus corners= x0 y0 z0 x1 y1 z1
// nucleus center= x0 y0 z0
// nucleus radius= r0
// nucleus boundary thickness= t0
const std::string keyBoundaryThickness="nucleus boundary thickness";
double thickness;
params.get( "nucleus boundary thickness", thickness, -1. );
if ( thickness>=0. ) nucleusBoundaryThickness=thickness;
typedef boost::tokenizer<>::iterator TokIterator;
typedef std::vector<double> DoubleVector;
bool noNucleus=false;
std::string nucleusType;
params.get( "nucleus type", nucleusType, "");
if ( (nucleusType == "box" ) || (nucleusType == "cubic")) {
Nucleus::NucleusShape nucleusShape=Nucleus::BoxNucleus;
std::string doubleList="";
params.get("nucleus corners", doubleList );
DPrintf(DebugSolver,"..NucleusGridFunction: nucleus type=box.\n");
DPrintf(DebugSolver,".... nucleus corners = '%s'\n", doubleList.c_str());
boost::tokenizer<> tok(doubleList);
DoubleVector corners;
DPrintf(DebugSolver," corners are = ");
corners.clear();
for (TokIterator it=tok.begin(); it!=tok.end(); ++it) {
double q;
sscanf(it->c_str(), "%lf", &q);
DPrintf(DebugSolver," %lf ", q);
corners.push_back( q );
}
DPrintf(DebugSolver,"\n");
//..create the nucleic info
if( corners.size() >5 ) {
Nucleus thisNuc;
thisNuc.setID(1);
thisNuc.setBoundaryThickness( nucleusBoundaryThickness );
thisNuc.setCorners(corners[0], corners[1], corners[2],
corners[3], corners[4], corners[5]);
thisNuc.setShape( nucleusShape );
nucleus.push_back( thisNuc );
}
}
else if ( (nucleusType == "sphere") || ( nucleusType == "spherical")) {
Nucleus::NucleusShape nucleusShape=Nucleus::SphericalNucleus;
double radius;
params.get("nucleus radius",radius, 20.);
std::string doubleList="";
params.get("nucleus center", doubleList );
DPrintf(DebugSolver,"..NucleusGridFunction: nucleus type=sphere not supported yet:\n");
DPrintf(DebugSolver,".. nucleus center = '%s'\n", doubleList.c_str());
boost::tokenizer<> tok(doubleList);
DoubleVector center;
DPrintf(DebugSolver," center is = ");
center.clear();
for (TokIterator it=tok.begin(); it!=tok.end(); ++it) {
double q;
sscanf(it->c_str(), "%lf", &q);
DPrintf(DebugSolver," %lf ", q);
center.push_back( q );
}
DPrintf(DebugSolver,"\n");
//..create the nucleic info
double x0=0., y0=0., z0=0.;
if( center.size() >1) {
x0=center[0];
y0=center[1];
}
if( center.size()>2) {
z0=center[2];
}
Nucleus thisNuc;
thisNuc.setID(1);
thisNuc.setBoundaryThickness( nucleusBoundaryThickness );
thisNuc.setCenter( x0, y0, z0);
thisNuc.setRadius( radius);
thisNuc.setShape( nucleusShape );
nucleus.push_back( thisNuc );
}
else if ( nucleusType == "file" ) {
std::string nucleusFileName="";
params.get("nucleus file",nucleusFileName);
DPrintf(DebugSolver,"nuclei read in from file='%s'\n", nucleusFileName.c_str());
readCellNucleusFile( nucleusFileName );
}
else { // all other options mean--> no nucleus
noNucleus=true;
}
}
bool
ExemplarClient::getRandomNumbers(const int howMany,
DoubleVector & result)
{
ODL_OBJENTER(); //####
ODL_I1("howMany = ", howMany); //####
ODL_P1("result = ", &result); //####
bool okSoFar = false;
try
{
if (0 < howMany)
{
yarp::os::Bottle parameters;
ServiceResponse response;
parameters.addInt(howMany);
reconnectIfDisconnected();
if (send(MpM_SIMPLE_REQUEST_, parameters, response))
{
if (howMany == response.count())
{
result.clear();
okSoFar = true;
for (int ii = 0; ii < howMany; ++ii)
{
yarp::os::Value retrieved(response.element(ii));
if (retrieved.isDouble())
{
result.push_back(retrieved.asDouble());
}
else
{
ODL_LOG("! (retrieved.isDouble())"); //####
okSoFar = false;
break;
}
}
}
else
{
ODL_LOG("! (howMany == response.count())"); //####
ODL_S1s("response = ", response.asString()); //####
}
}
else
{
ODL_LOG("! (send(MpM_SIMPLE_REQUEST_, parameters, response))"); //####
}
}
else
{
ODL_LOG("! (0 < howMany)"); //####
}
}
catch (...)
{
ODL_LOG("Exception caught"); //####
throw;
}
ODL_OBJEXIT_B(okSoFar); //####
return okSoFar;
} // ExemplarClient::getRandomNumbers
void BackwardParabolicIBVP::gridMethod(DoubleVector &p, SweepMethodDirection direction) const
{
typedef void (*t_algorithm)(const double*, const double*, const double*, const double*, double*, unsigned int);
t_algorithm algorithm = &tomasAlgorithm;
if (direction == ForwardSweep) algorithm = &tomasAlgorithmL2R;
if (direction == BackwardSweep) algorithm = &tomasAlgorithmR2L;
Dimension time = mtimeDimension;
Dimension dim1 = mspaceDimension.at(0);
double ht = time.step();
unsigned int minM = time.min();
unsigned int maxM = time.max();
unsigned int M = maxM-minM;
double hx = dim1.step();
unsigned int minN = dim1.min();
unsigned int maxN = dim1.max();
unsigned int N = maxN-minN;
double h = ht/(hx*hx);
p.clear();
p.resize(N+1);
double *ka = (double*) malloc(sizeof(double)*(N-1));
double *kb = (double*) malloc(sizeof(double)*(N-1));
double *kc = (double*) malloc(sizeof(double)*(N-1));
double *kd = (double*) malloc(sizeof(double)*(N-1));
double *rx = (double*) malloc(sizeof(double)*(N-1));
/* initial condition */
SpaceNodePDE isn;
for (unsigned int n=0; n<=N; n++)
{
isn.i = n+minN;
isn.x = isn.i*hx;
p[n] = initial(isn);
}
layerInfo(p, M);
SpaceNodePDE lsn;
lsn.i = minN;
lsn.x = minN*hx;
SpaceNodePDE rsn;
rsn.i = maxN;
rsn.x = maxN*hx;
TimeNodePDE tn;
for (unsigned int m=M-1; m!=UINT32_MAX; m--)
{
tn.i = m+minM;
tn.t = tn.i*ht;
for (unsigned int n=1; n<=N-1; n++)
{
isn.i = n+minN;
isn.x = isn.i*hx;
double alpha = -a(isn,tn)*h;
double betta = 1.0 - 2.0*alpha;
ka[n-1] = alpha;
kb[n-1] = betta;
kc[n-1] = alpha;
kd[n-1] = p[n] - ht * f(isn, tn);
}
ka[0] = 0.0;
kc[N-2] = 0.0;
/* border conditions */
p[0] = boundary(lsn, tn);
p[N] = boundary(rsn, tn);
kd[0] -= a(lsn,tn) * h * p[0];
kd[N-2] -= a(rsn,tn) * h * p[N];
(*algorithm)(ka, kb, kc, kd, rx, N-1);
for (unsigned int n=1; n<=N-1; n++) p[n] = rx[n-1];
layerInfo(p, m);
}
free(ka);
free(kb);
free(kc);
free(kd);
free(rx);
}
void RRSchedule::allocate2D(DoubleVector& _invect, int row, int col)
{
_invect.clear();
_invect.reserve(row);
}
void TimeWarp::calculatePartJointSimilarityMatrix(DoubleVector* firstEnergyVector, DoubleVector* secondEnergyVector, DoubleMatrix* chromaSimMatrix, DoubleMatrix* simMatrix, const int& startX, const int& startY, int endX, int endY){
// printf("PART SIM CALC Calculate similarity : pointers : startX %i startY %i, endX %i endY %i ", startX, startY, endX, endY);
// printf("PART SIM ENERGY VEC LENGTHS %i and %i\n", (int) (*firstEnergyVector).size(), (int) (*secondEnergyVector).size());
conversionFactor = (int) round((*firstEnergyVector).size() / (*chromaSimMatrix).size() );
// printf("conversion fac %i", conversionFactor);
simMatrix->clear();
double energyProportion = 0.2;
double chromaProportion = 1 - energyProportion;
double distance, firstSum, secondSum;
endX = min (endX, (int)(*firstEnergyVector).size()-1);//in case out of size
endY = min( endY+1, (int)(*secondEnergyVector).size());
// endY = min( endY, (int)(*secondEnergyVector).size()-1);//added to switch
int lastChromaYvalue = 0;
int chromaIndexY = 0;
double chromaComponent = 0;
double chromaContribution = 0;
//int chromaXsize = (int)(*chromaSimMatrix).size()-1;
//int chromaYsize;
DoubleVector d;
for (int x = startX;x <= endX;x++){
d.clear();
//now need the chroma part
int chromaIndexX = min(x / conversionFactor, (int)(*chromaSimMatrix).size()-1);
//chromaYsize = (int)(*chromaSimMatrix)[chromaIndexX].size()-1;
for (int y = startY;y < endY;y++){
chromaIndexY = min(y / conversionFactor, (int)(*chromaSimMatrix)[chromaIndexX].size()-1);
//was thinking to restrict the y part too, but not working yet
if (chromaIndexY != lastChromaYvalue){
chromaComponent = (*chromaSimMatrix)[chromaIndexX][chromaIndexY];
lastChromaYvalue = chromaIndexY;
chromaContribution = chromaProportion * chromaComponent;
}
distance = (*firstEnergyVector)[x] * (*secondEnergyVector)[y];//energy similarity
distance *= energyProportion;
distance += chromaContribution;
distance = chromaComponent;
d.push_back( distance);
} //end for y
(*simMatrix).push_back(d);
}//end for x
// printf("..part JOINT sim size: %i, height: %i \n", (int) (*simMatrix).size(), (int) (*simMatrix)[0].size());
}//end self sim
void TimeWarp::calculateRestrictedCausalChromaSimilarityMatrix(DoubleMatrix& firstChromaMatrix, DoubleMatrix& secondChromaMatrix, DoubleMatrix& simMatrix, const int& Xstart, const int& Ystart, const int& Xlimit, const int& yLimit){
//calculates the chroma only similarity matrix - used to reduce computation later when doing the joint energy and chroma matrix
DoubleVector d;
int size = 0;
if (simMatrix.size() > 0){
size = simMatrix[0].size();
}
if (secondChromaMatrix.size() > size ){
// printf("sim matrix size %i and second matrix size %i Xstart %i\n", simMatrix.size(), secondChromaMatrix.size(), Xstart);
for (int x = 0;x < Xstart;x++){
simMatrix[x].push_back(0);
}
int endX = min(Xlimit, (int)firstChromaMatrix.size());
for (int x = Xstart;x < endX;x++){
if (x < simMatrix.size()){
//i.e. entries already exist
for (int y = (int)simMatrix[x].size();y < secondChromaMatrix.size();y++){
double distance;
if (useDotProduct)
distance = getChromaSimilarity(x, y, &firstChromaMatrix, &secondChromaMatrix);
else
distance = getEuclideanDistance(x, y, &firstChromaMatrix, &secondChromaMatrix);
// printf("X %i Y %i dist %f\n", x, y, distance);
simMatrix[x].push_back(distance);
}
}
else {
DoubleVector d;
for (int y = 0;y < secondChromaMatrix.size();y++){
double distance;
if (useDotProduct)
distance = getChromaSimilarity(x, y, &firstChromaMatrix, &secondChromaMatrix);
else
distance = getEuclideanDistance(x, y, &firstChromaMatrix, &secondChromaMatrix);
// printf("new row X %i Y %i dist %f\n", x, y, distance);
d.clear();
d.push_back( distance);
}
simMatrix.push_back(d);
}
}//end for good section
for (int x = endX;x < firstChromaMatrix.size(); x++){
if (x < simMatrix.size()){
simMatrix[x].push_back(0);
}else{
d.clear();
d.push_back(0);
simMatrix.push_back(d);
}
}//end for x to end
}
// if (size > 0)
// printf("Causial CHROMA ONLY SIM SIZE %i x %i; ", (int)simMatrix.size(), (int) simMatrix[0].size());
//printf("First matrix SIZE %i , SECOND size %i\n", (int)firstChromaMatrix.size(), (int) secondChromaMatrix.size());
}