unsigned TagWriter::Write(const std::string& filename,
const db::Recordset *tags)
{
util::Mutex::Lock lock(s_taglib_mutex);
// TRACE << "Opening '" << filename << "'\n";
typedef std::map<std::string, std::string> tagmap_t;
tagmap_t tagmap;
for (unsigned int i=0; i<mediadb::FIELD_COUNT; ++i)
{
const char *s = import::GetVorbisTagForField(i);
if (s)
{
std::string val = tags->GetString(i);
if (!val.empty())
tagmap[s] = val;
}
}
TagLib::FLAC::File tff(filename.c_str());
TagLib::Ogg::XiphComment *oxc = tff.xiphComment(true);
for (tagmap_t::const_iterator i = tagmap.begin(); i != tagmap.end(); ++i)
{
if (!i->second.empty())
oxc->addField(i->first, TagLib::String(i->second,
TagLib::String::UTF8));
}
tff.save();
TRACE << "FLAC file tagged\n";
return 0;
}
void cbSideBySideCtrl::ShowDiff(wxDiff diff)
{
wxArrayInt right_added = diff.GetAddedLines();
wxArrayInt right_empty = diff.GetRightEmptyLines();
wxArrayInt left_empty = diff.GetLeftEmptyLines();
wxArrayInt left_removed = diff.GetRemovedLines();
/* Left Textctrl (m_fromfile) */
TCLeft->SetReadOnly(false);
TCLeft->ClearAll();
wxTextFile tff(diff.GetFromFilename());
tff.Open();
bool refill = false;
wxString str = tff.GetFirstLine();
int linecount = tff.GetLineCount() + left_empty.GetCount();
int linenumber = 1;
for (int i = 0; i < linecount; i++)
{
if(refill && !tff.Eof())
str = tff.GetNextLine();
if(left_removed.Index(i+1) != wxNOT_FOUND)
{
TCLeft->AppendText(str + _T("\n"));
refill = true;
TCLeft->MarginSetStyle(i, wxSCI_STYLE_LINENUMBER);
TCLeft->MarginSetText(i,wxString::Format(_T("%d"),linenumber));
TCLeft->MarkerAdd(i, MINUS_MARKER);
TCLeft->MarkerAdd(i, RED_BKG_MARKER);
linenumber++;
continue;
}
if(left_empty.Index(i+1) != wxNOT_FOUND)
{
TCLeft->AppendText(_T("\n"));
TCLeft->MarkerAdd(i, GREY_BKG_MARKER);
refill = false;
continue;
}
TCLeft->AppendText(str + _T("\n"));
refill = true;
TCLeft->MarginSetStyle(i, wxSCI_STYLE_LINENUMBER);
TCLeft->MarginSetText(i,wxString::Format(_T("%d"),linenumber));
TCLeft->MarkerAdd(i, EQUAL_MARKER);
linenumber++;
}
TCLeft->SetReadOnly(true);
/* Right Textctrl (m_tofile) */
TCRight->SetReadOnly(false);
TCRight->ClearAll();
wxTextFile tft(diff.GetToFilename());
tft.Open();
refill = false;
str = tft.GetFirstLine();
linecount = tft.GetLineCount() + right_empty.GetCount();
linenumber = 1;
for (int i = 0; i < linecount; i++)
{
if(refill && !tft.Eof())
str = tft.GetNextLine();
if(right_added.Index(i+1) != wxNOT_FOUND)
{
TCRight->AppendText(str + _T("\n"));
refill = true;
TCRight->MarginSetStyle(i, wxSCI_STYLE_LINENUMBER);
TCRight->MarginSetText(i, wxString::Format(_T("%d"),linenumber));
linenumber++;
TCRight->MarkerAdd(i, PLUS_MARKER);
TCRight->MarkerAdd(i, GREEN_BKG_MARKER);
continue;
}
if(right_empty.Index(i+1) != wxNOT_FOUND)
{
TCRight->AppendText(_T("\n"));
TCRight->MarkerAdd(i, GREY_BKG_MARKER);
refill = false;
continue;
}
TCRight->AppendText(str + _T("\n"));
refill = true;
TCRight->MarginSetStyle(i, wxSCI_STYLE_LINENUMBER);
TCRight->MarginSetText(i, wxString::Format(_T("%d"),linenumber));
TCRight->MarkerAdd(i, EQUAL_MARKER);
linenumber++;
}
TCRight->SetReadOnly(true);
}
void Histogram_gui::changeCurve(const QString & s)
{
std::map<float,int>::iterator itr;
int total = histogram_->rawDataSize();
int i = 0;
QwtText tfp("Probability");
tfp.setFont(plot_->axisFont(QwtPlot::yLeft));
QwtText tff("Frequency");
tff.setFont(plot_->axisFont(QwtPlot::yLeft));
QColor blueColor(Qt::blue);
const QPen pen(blueColor);
std::pair<double*,double*> curve = histogram_->plotting_data();
if (!curve.first) {
appli_message("No data present");
return;
}
if (s == "cdf") {
std::map<float, int> freqCount = histogram_->frequency();
_cdfCurve->setAxis(QwtPlot::xBottom, QwtPlot::yLeft);
plot_->setAxisTitle(QwtPlot::yLeft, tfp);
plot_->enableAxis(QwtPlot::yRight,false);
curve_grid_->enableY(true);
curve_grid_->setYAxis(QwtPlot::yLeft);
plot_->enableAxis(QwtPlot::yLeft);
curve_id_->setStyle(QwtPlotCurve::NoCurve);
_cdfCurve->setStyle(QwtPlotCurve::Lines);
double * x = new double[freqCount.size()+1];
double * y = new double[freqCount.size()+1];
y[0] = 0;
for (itr = freqCount.begin(); itr != freqCount.end(); ++itr,++i) {
x[i+1] = itr->first;
y[i+1] = y[i]+(double)(itr->second)/(double)(total);
}
x[0] = x[1];
_cdfCurve->setPen(pen);
_cdfCurve->setData( x, y, freqCount.size()+1 );
refresh_plot( _cdfCurve, std::make_pair( x,y ), freqCount.size()+1 );
refresh_stats();
delete []x;
delete []y;
}
else if (s == "pdf") {
//_cdfCurve->detach();
plot_->enableAxis(QwtPlot::yRight, false);
plot_->setAxisTitle(QwtPlot::yLeft, tff);
plot_->enableAxis(QwtPlot::xBottom);
curve_id_->setAxis(QwtPlot::xBottom, QwtPlot::yLeft);
curve_grid_->setYAxis(QwtPlot::yLeft);
curve_grid_->enableY(true);
curve_grid_->setXAxis(QwtPlot::xBottom);
curve_grid_->enableX(true);
_cdfCurve->setStyle(QwtPlotCurve::NoCurve);
curve_id_->setStyle(QwtPlotCurve::Histogram);
int size = histogram_->bins()+1;
double* x = new double[size+1];
double* y = new double[size+1];
for( int i =0 ; i < size ; i++ ) {
x[i+1] = curve.first[i];
y[i+1] = curve.second[i];
}
x[0] = x[1];
y[0] = 0.0;
refresh_plot( std::make_pair( x,y ), size+1 );
refresh_stats();
delete []x;
delete []y;
}
else {
std::map<float, int> freqCount = histogram_->frequency();
_cdfCurve->setAxis(QwtPlot::xBottom, QwtPlot::yRight);
plot_->enableAxis(QwtPlot::yRight, true);
plot_->enableAxis(QwtPlot::yLeft, true);
curve_grid_->setYAxis(QwtPlot::yLeft);
plot_->setAxisTitle(QwtPlot::yLeft, tff);
plot_->setAxisTitle(QwtPlot::yRight, tfp);
_cdfCurve->setStyle(QwtPlotCurve::Lines);
curve_id_->setStyle(QwtPlotCurve::Histogram);
double * x = new double[freqCount.size()+1];
double * y = new double[freqCount.size()+1];
y[0] = 0;
for (itr = freqCount.begin(); itr != freqCount.end(); ++itr,++i) {
x[i+1] = itr->first;
y[i+1] = y[i]+(double)(itr->second)/(double)(total);
}
x[0] = x[1];
_cdfCurve->setPen(pen);
_cdfCurve->setData( x, y, freqCount.size()+1 );
refresh_plot( _cdfCurve, std::make_pair( x,y ), freqCount.size()+1 );
//refresh_stats();
int size = histogram_->bins()+1;
double* x1 = new double[size+1];
double* y1 = new double[size+1];
for( int i =0 ; i < size ; i++ ) {
x1[i+1] = curve.first[i];
y1[i+1] = curve.second[i];
}
x1[0] = x1[1];
y1[0] = 0.0;
refresh_plot( std::make_pair( x1,y1 ), size+1 );
refresh_stats();
delete []x1;
delete []y1;
delete []x;
delete []y;
}
//plot_->replot();
}
void testSymmetrize(Pooma::Tester &tester)
{
tester.out() << std::endl << "========= " << D << "D =========" << std::endl;
// Create Full, Antisymmetric, Symmetric, and Diagonal Tensors as inputs:
Tensor<D,double,Full> tf;
double value = 1.0;
for (int i = 0; i < D; i++) {
for (int j = 0; j < D; j++) {
tf(i,j) = value;
value++;
}
}
tester.out() << "tf: " << tf << std::endl;
Tensor<D,double,Antisymmetric> ta;
value = 1.0;
for (int i = 0; i < TensorStorageSize<D,Antisymmetric>::Size; i++) {
ta(i) = i + 1.0;
}
tester.out() << "ta: " << ta << std::endl;
Tensor<D,double,Symmetric> ts;
for (int i = 0; i < TensorStorageSize<D,Symmetric>::Size; i++) {
ts(i) = i + 1.0;
}
tester.out() << "ts: " << ts << std::endl;
Tensor<D,double,Diagonal> td;
for (int i = 0; i < TensorStorageSize<D,Diagonal>::Size; i++) {
td(i) = i + 1.0;
}
tester.out() << "td: " << td << std::endl;
//---------------------------------------------------------------------------
// Make Fields of these types, to test forwarding of symmetrize<>() function:
// Create the physical Domains:
const int nVerts = 6;
const int nCells = nVerts - 1;
int nCellsTot = 1;
Interval<D> vertexDomain;
for (int d = 0; d < D; d++) {
vertexDomain[d] = Interval<1>(nVerts);
nCellsTot *= nCells;
}
// Create the (uniform, logically rectilinear) mesh.
Vector<D> origin(0.0), spacings(0.2);
typedef UniformRectilinearMesh<D> Mesh_t;
DomainLayout<D> layout(vertexDomain, GuardLayers<D>(0));
// Create the Fields:
Centering<D> cell = canonicalCentering<D>(CellType, Continuous);
// Full, Antisymmetric, Symmetric, Diagonal Tensor Fields:
Field<Mesh_t,Tensor<D,double,Full> > tff(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<D,double,Symmetric> >
tfs(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<D,double,Antisymmetric> >
tfa(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<D,double,Diagonal> > tfd(cell, layout, origin, spacings);
// Assign to the single-Tensor values:
tff = tf;
tfs = ts;
tfa = ta;
tfd = td;
#ifndef __MWERKS__ // This whole module is too much for CW5 to compile
// --------------------------------------------------------------------------
// Symmetrize from Full tensor to {Antisymmetric, Symmetric, Diagonal}:
// To Antisymmetric:
if (!tester.check("symmetrize<Antisymmetric>(tf): ",
(symmetrize<Antisymmetric>(tf) ==
makeAntisymmetric(tf)))) {
tester.out() << "symmetrize<Antisymmetric>(tf) = "
<< symmetrize<Antisymmetric>(tf)
<< " != makeAntisymmetric(tf) = "
<< makeAntisymmetric(tf) << std::endl;
}
if (!tester.check("sum(symmetrize<Antisymmetric>(tff)): ",
(sum(symmetrize<Antisymmetric>(tff)) ==
nCellsTot*makeAntisymmetric(tf)))) {
tester.out() << "sum(symmetrize<Antisymmetric>(tff)) = "
<< sum(symmetrize<Antisymmetric>(tff))
<< " != nCellsTot*makeAntisymmetric(tf) = "
<< nCellsTot*makeAntisymmetric(tf) << std::endl;
}
// To Symmetric:
if (!tester.check("symmetrize<Symmetric>(tf): ",
(symmetrize<Symmetric>(tf) ==
makeSymmetric(tf)))) {
tester.out() << "symmetrize<Symmetric>(tf) = "
<< symmetrize<Symmetric>(tf)
<< " != makeSymmetric(tf) = "
<< makeSymmetric(tf) << std::endl;
}
if (!tester.check("sum(symmetrize<Symmetric>(tff)): ",
(sum(symmetrize<Symmetric>(tff)) ==
nCellsTot*makeSymmetric(tf)))) {
tester.out() << "sum(symmetrize<Symmetric>(tff)) = "
<< sum(symmetrize<Symmetric>(tff))
<< " != nCellsTot*makeSymmetric(tf) = "
<< nCellsTot*makeSymmetric(tf) << std::endl;
}
// To Diagonal::
if (!tester.check("symmetrize<Diagonal>(tf): ",
(symmetrize<Diagonal>(tf) ==
makeDiagonal(tf)))) {
tester.out() << "symmetrize<Diagonal>(tf) = "
<< symmetrize<Diagonal>(tf)
<< " != makeDiagonal(tf) = "
<< makeDiagonal(tf) << std::endl;
}
if (!tester.check("sum(symmetrize<Diagonal>(tff)): ",
(sum(symmetrize<Diagonal>(tff)) ==
nCellsTot*makeDiagonal(tf)))) {
tester.out() << "sum(symmetrize<Diagonal>(tff)) = "
<< sum(symmetrize<Diagonal>(tff))
<< " != nCellsTot*makeDiagonal(tf) = "
<< nCellsTot*makeDiagonal(tf) << std::endl;
}
// --------------------------------------------------------------------------
// Symmetrize from Antisymmetric tensor to {Full, Symmetric, Diagonal}:
// To Full:
if (!tester.check("symmetrize<Full>(ta): ",
(symmetrize<Full>(ta) ==
makeFull(ta)))) {
tester.out() << "symmetrize<Full>(ta) = "
<< symmetrize<Full>(ta)
<< " != makeFull(ta) = "
<< makeFull(ta) << std::endl;
}
if (!tester.check("sum(symmetrize<Full>(tfa)): ",
(sum(symmetrize<Full>(tfa)) ==
nCellsTot*makeFull(ta)))) {
tester.out() << "sum(symmetrize<Full>(tfa)) = "
<< sum(symmetrize<Full>(tfa))
<< " != nCellsTot*makeFull(ta) = "
<< nCellsTot*makeFull(ta) << std::endl;
}
// To Symmetric:
if (!tester.check("symmetrize<Symmetric>(ta): ",
(symmetrize<Symmetric>(ta) ==
makeSymmetric(ta)))) {
tester.out() << "symmetrize<Symmetric>(ta) = "
<< symmetrize<Symmetric>(ta)
<< " != makeSymmetric(ta) = "
<< makeSymmetric(ta) << std::endl;
}
if (!tester.check("sum(symmetrize<Symmetric>(tfa)): ",
(sum(symmetrize<Symmetric>(tfa)) ==
nCellsTot*makeSymmetric(ta)))) {
tester.out() << "sum(symmetrize<Symmetric>(tfa)) = "
<< sum(symmetrize<Symmetric>(tfa))
<< " != nCellsTot*makeSymmetric(ta) = "
<< nCellsTot*makeSymmetric(ta) << std::endl;
}
// To Diagonal::
if (!tester.check("symmetrize<Diagonal>(ta): ",
(symmetrize<Diagonal>(ta) ==
makeDiagonal(ta)))) {
tester.out() << "symmetrize<Diagonal>(ta) = "
<< symmetrize<Diagonal>(ta)
<< " != makeDiagonal(ta) = "
<< makeDiagonal(ta) << std::endl;
}
if (!tester.check("sum(symmetrize<Diagonal>(tfa)): ",
(sum(symmetrize<Diagonal>(tfa)) ==
nCellsTot*makeDiagonal(ta)))) {
tester.out() << "sum(symmetrize<Diagonal>(tfa)) = "
<< sum(symmetrize<Diagonal>(tfa))
<< " != nCellsTot*makeDiagonal(ta) = "
<< nCellsTot*makeDiagonal(ta) << std::endl;
}
#endif // __MWERKS__
// --------------------------------------------------------------------------
// Symmetrize from Symmetric tensor to {Full, Antisymmetric, Diagonal}:
// To Full:
if (!tester.check("symmetrize<Full>(ts): ",
(symmetrize<Full>(ts) ==
makeFull(ts)))) {
tester.out() << "symmetrize<Full>(ts) = "
<< symmetrize<Full>(ts)
<< " != makeFull(ts) = "
<< makeFull(ts) << std::endl;
}
if (!tester.check("sum(symmetrize<Full>(tfs)): ",
(sum(symmetrize<Full>(tfs)) ==
nCellsTot*makeFull(ts)))) {
tester.out() << "sum(symmetrize<Full>(tfs)) = "
<< sum(symmetrize<Full>(tfs))
<< " != nCellsTot*makeFull(ts) = "
<< nCellsTot*makeFull(ts) << std::endl;
}
// To Antisymmetric:
if (!tester.check("symmetrize<Antisymmetric>(ts): ",
(symmetrize<Antisymmetric>(ts) ==
makeAntisymmetric(ts)))) {
tester.out() << "symmetrize<Antisymmetric>(ts) = "
<< symmetrize<Antisymmetric>(ts)
<< " != makeAntisymmetric(ts) = "
<< makeAntisymmetric(ts) << std::endl;
}
if (!tester.check("sum(symmetrize<Antisymmetric>(tfs)): ",
(sum(symmetrize<Antisymmetric>(tfs)) ==
nCellsTot*makeAntisymmetric(ts)))) {
tester.out() << "sum(symmetrize<Antisymmetric>(tfs)) = "
<< sum(symmetrize<Antisymmetric>(tfs))
<< " != nCellsTot*makeAntisymmetric(ts) = "
<< nCellsTot*makeAntisymmetric(ts) << std::endl;
}
// To Diagonal::
if (!tester.check("symmetrize<Diagonal>(ts): ",
(symmetrize<Diagonal>(ts) ==
makeDiagonal(ts)))) {
tester.out() << "symmetrize<Diagonal>(ts) = "
<< symmetrize<Diagonal>(ts)
<< " != makeDiagonal(ts) = "
<< makeDiagonal(ts) << std::endl;
}
if (!tester.check("sum(symmetrize<Diagonal>(tfs)): ",
(sum(symmetrize<Diagonal>(tfs)) ==
nCellsTot*makeDiagonal(ts)))) {
tester.out() << "sum(symmetrize<Diagonal>(tfs)) = "
<< sum(symmetrize<Diagonal>(tfs))
<< " != nCellsTot*makeDiagonal(ts) = "
<< nCellsTot*makeDiagonal(ts) << std::endl;
}
// --------------------------------------------------------------------------
// Symmetrize from Diagonal tensor to {Full, Antisymmetric, Symmetric}:
// To Full:
if (!tester.check("symmetrize<Full>(td): ",
(symmetrize<Full>(td) ==
makeFull(td)))) {
tester.out() << "symmetrize<Full>(td) = "
<< symmetrize<Full>(td)
<< " != makeFull(td) = "
<< makeFull(td) << std::endl;
}
if (!tester.check("sum(symmetrize<Full>(tfd)): ",
(sum(symmetrize<Full>(tfd)) ==
nCellsTot*makeFull(td)))) {
tester.out() << "sum(symmetrize<Full>(tfd)) = "
<< sum(symmetrize<Full>(tfd))
<< " != nCellsTot*makeFull(td) = "
<< nCellsTot*makeFull(td) << std::endl;
}
// To Antisymmetric:
if (!tester.check("symmetrize<Antisymmetric>(td): ",
(symmetrize<Antisymmetric>(td) ==
makeAntisymmetric(td)))) {
tester.out() << "symmetrize<Antisymmetric>(td) = "
<< symmetrize<Antisymmetric>(td)
<< " != makeAntisymmetric(td) = "
<< makeAntisymmetric(td) << std::endl;
}
if (!tester.check("sum(symmetrize<Antisymmetric>(tfd)): ",
(sum(symmetrize<Antisymmetric>(tfd)) ==
nCellsTot*makeAntisymmetric(td)))) {
tester.out() << "sum(symmetrize<Antisymmetric>(tfd)) = "
<< sum(symmetrize<Antisymmetric>(tfd))
<< " != nCellsTot*makeAntisymmetric(td) = "
<< nCellsTot*makeAntisymmetric(td) << std::endl;
}
// To Symmetric:
if (!tester.check("symmetrize<Symmetric>(td): ",
(symmetrize<Symmetric>(td) ==
makeSymmetric(td)))) {
tester.out() << "symmetrize<Symmetric>(td) = "
<< symmetrize<Symmetric>(td)
<< " != makeSymmetric(td) = "
<< makeSymmetric(td) << std::endl;
}
if (!tester.check("sum(symmetrize<Symmetric>(tfd)): ",
(sum(symmetrize<Symmetric>(tfd)) ==
nCellsTot*makeSymmetric(td)))) {
tester.out() << "sum(symmetrize<Symmetric>(tfd)) = "
<< sum(symmetrize<Symmetric>(tfd))
<< " != nCellsTot*makeSymmetric(td) = "
<< nCellsTot*makeSymmetric(td) << std::endl;
}
}
void testTrace(Pooma::Tester &tester)
{
// Create the physical Domains:
const int nVerts = 6;
const int nCells = nVerts - 1;
int nCellsTot = 1;
Interval<Dim> vertexDomain;
for (int d = 0; d < Dim; d++) {
vertexDomain[d] = Interval<1>(nVerts);
nCellsTot *= nCells;
}
// Create the (uniform, logically rectilinear) mesh.
Vector<Dim> origin(0.0), spacings(0.2);
typedef UniformRectilinearMesh<Dim> Mesh_t;
DomainLayout<Dim> layout(vertexDomain, GuardLayers<Dim>(0));
// Create the Fields:
Centering<Dim> cell = canonicalCentering<Dim>(CellType, Continuous);
// Full, Antisymmetric, Symmetric, Diagonal Tensor Fields:
Field<Mesh_t,Tensor<Dim,double,Full> > tff(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<Dim,double,Antisymmetric> >
tfa(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<Dim,double,Symmetric> >
tfs(cell, layout, origin, spacings);
Field<Mesh_t,Tensor<Dim,double,Diagonal> >
tfd(cell, layout, origin, spacings);
// Assign values:
Tensor<Dim,double,Full> tf(0.0);
Tensor<Dim,double,Antisymmetric> ta(0.0);
Tensor<Dim,double,Symmetric> ts(0.0);
Tensor<Dim,double,Diagonal> td(0.0);
double fullSymDiagTrace = 0.0;
for (int i = 0; i < Dim; i++) {
for (int j = 0; j < Dim; j++) {
tf(i,j) = (i+1)*(i+1) + (j+1)*(j+1) + (i+4)*(j+4) + i;
if (i == j) fullSymDiagTrace += tf(i,j);
}
}
// tester.out() << "tf = " << tf << std::endl;
ta = symmetrize<Antisymmetric>(tf);
ts = symmetrize<Symmetric>(tf);
td = symmetrize<Diagonal>(tf);
tff = tf;
tfa = ta;
tfs = ts;
tfd = td;
// Test trace of Full Tensor:
double traceValue;
traceValue = sum(trace(tff));
tester.out() << "traceValue = sum(trace(tff)): " << traceValue << std::endl;
tester.check("traceValue", traceValue, fullSymDiagTrace*nCellsTot);
// Test trace of Symmetric Tensor:
traceValue = sum(trace(tfs));
if (!tester.check("traceValue", traceValue, fullSymDiagTrace*nCellsTot)) {
tester.out() << Dim << "D, sum(trace(tfs)): " << traceValue
<< " != fullSymDiagTrace*nCellsTot = "
<< fullSymDiagTrace*nCellsTot << std::endl;
}
// Test trace of Antisymmetric Tensor:
traceValue = sum(trace(tfa));
if (!tester.check("traceValue", traceValue, 0.0*nCellsTot)) {
tester.out() << Dim << "D, sum(trace(tfa)): " << traceValue
<< " != 0.0" << std::endl;
}
// Test trace of Diagonal Tensor:
traceValue = sum(trace(tfd));
if (!tester.check("traceValue", traceValue, fullSymDiagTrace*nCellsTot)) {
tester.out() << Dim << "D, sum(trace(tfd)): " << traceValue
<< " != fullSymDiagTrace*nCellsTot = "
<< fullSymDiagTrace*nCellsTot << std::endl;
}
}
