KDMConfigApplication::KDMConfigApplication(int &argc, char **argv, const char *name)
: KControlApplication(argc, argv, name)
{
appearance = 0;
font = 0;
background = 0;
users = 0;
sessions = 0;
pages = getPageList();
if (runGUI())
{
QString fn(CONFIGFILE);
QFileInfo fi(fn.data());
if(fi.isReadable() && fi.isWritable())
{
kimgioRegister();
KIconLoader *iconloader = kapp->getIconLoader();
if(iconloader)
{
QString idir(kapp->kde_datadir() + "/kdm/pics/users");
iconloader->insertDirectory(0, idir.data());
idir = kapp->kde_datadir() + "/kdm/pics";
iconloader->insertDirectory(0, idir.data());
idir = kapp->kde_wallpaperdir();
iconloader->insertDirectory(0, idir.data());
//idir = kapp->kde_icondir();
//iconloader->insertDirectory(0, idir.data());
}
if (!pages || pages->contains("appearance"))
addPage(appearance = new KDMAppearanceWidget(dialog, "appearance", FALSE),
klocale->translate("&Appearance"),
"kdm-appear.html");
if (!pages || pages->contains("font"))
addPage(font = new KDMFontWidget(dialog, "font", FALSE),
klocale->translate("&Fonts"),
"kdm-font.html");
if (!pages || pages->contains("background"))
addPage(background = new KDMBackgroundWidget(dialog, "background", FALSE),
klocale->translate("&Background"), "kdm-backgnd.html");
if (!pages || pages->contains("users"))
addPage(users = new KDMUsersWidget(dialog, "users", FALSE),
klocale->translate("&Users"), "kdm-users.html");
if (!pages || pages->contains("sessions"))
addPage(sessions = new KDMSessionsWidget(dialog, "sessions", FALSE),
klocale->translate("&Sessions"), "kdm-sess.html");
if (appearance || font || background || sessions || users)
dialog->show();
else
{
fprintf(stderr, klocale->translate("usage: kdmconfig [-init | {appearance,font,background,sessions,users}]\n"));
justInit = TRUE;
}
}
}
}
QString
QvisVisItUpdate::getInstallationDir() const
{
QString idir(GetVisItInstallationDirectory(latestVersion.toStdString().c_str()).c_str());
#ifdef __APPLE__
int pos = idir.indexOf("VisIt.app/Contents/Resources");
if(pos != -1)
idir = idir.left(pos);
#endif
return idir;
}
RaycastResult RayTracer::raycast(const Vec3f& orig, const Vec3f& dir, const int lightignore, std::vector<Vec3f> *lines) const {
float tmin = 1;
RaycastResult castresult;
castresult.t = 2;
castresult.lightmin = -1;
castresult.point = orig+dir;
Vec3f idir(1.0f/dir.x, 1.0f/dir.y, 1.0f/dir.z);
if (m_root != NULL && m_root->leftChild != NULL)
travelBox(*m_root, dir, idir, orig, tmin, castresult, lines);
return castresult;
}
void Foam::FitData<FitDataType, ExtendedStencil, Polynomial>::calcFit
(
scalarList& coeffsi,
const List<point>& C,
const scalar wLin,
const label facei
)
{
vector idir(1,0,0);
vector jdir(0,1,0);
vector kdir(0,0,1);
findFaceDirs(idir, jdir, kdir, facei);
// Setup the point weights
scalarList wts(C.size(), scalar(1));
wts[0] = centralWeight_;
if (linearCorrection_)
{
wts[1] = centralWeight_;
}
// Reference point
point p0 = this->mesh().faceCentres()[facei];
// Info << "Face " << facei << " at " << p0 << " stencil points at:\n"
// << C - p0 << endl;
// p0 -> p vector in the face-local coordinate system
vector d;
// Local coordinate scaling
scalar scale = 1;
// Matrix of the polynomial components
scalarRectangularMatrix B(C.size(), minSize_, scalar(0));
for(label ip = 0; ip < C.size(); ip++)
{
const point& p = C[ip];
d.x() = (p - p0)&idir;
d.y() = (p - p0)&jdir;
# ifndef SPHERICAL_GEOMETRY
d.z() = (p - p0)&kdir;
# else
d.z() = mag(p) - mag(p0);
# endif
if (ip == 0)
{
scale = cmptMax(cmptMag((d)));
}
// Scale the radius vector
d /= scale;
Polynomial::addCoeffs
(
B[ip],
d,
wts[ip],
dim_
);
}
// Additional weighting for constant and linear terms
for(label i = 0; i < B.n(); i++)
{
B[i][0] *= wts[0];
B[i][1] *= wts[0];
}
// Set the fit
label stencilSize = C.size();
coeffsi.setSize(stencilSize);
bool goodFit = false;
for(int iIt = 0; iIt < 8 && !goodFit; iIt++)
{
SVD svd(B, SMALL);
scalar maxCoeff = 0;
label maxCoeffi = 0;
for(label i=0; i<stencilSize; i++)
{
coeffsi[i] = wts[0]*wts[i]*svd.VSinvUt()[0][i];
if (mag(coeffsi[i]) > maxCoeff)
{
maxCoeff = mag(coeffsi[i]);
maxCoeffi = i;
}
}
if (linearCorrection_)
{
goodFit =
(mag(coeffsi[0] - wLin) < linearLimitFactor_*wLin)
&& (mag(coeffsi[1] - (1 - wLin)) < linearLimitFactor_*(1 - wLin))
&& maxCoeffi <= 1;
}
else
{
// Upwind: weight on face is 1.
goodFit =
(mag(coeffsi[0] - 1.0) < linearLimitFactor_*1.0)
&& maxCoeffi <= 1;
}
// if (goodFit && iIt > 0)
// {
// Info << "FitData<Polynomial>::calcFit"
// << "(const List<point>& C, const label facei" << nl
// << "Can now fit face " << facei << " iteration " << iIt
// << " with sum of weights " << sum(coeffsi) << nl
// << " Weights " << coeffsi << nl
// << " Linear weights " << wLin << " " << 1 - wLin << nl
// << " sing vals " << svd.S() << endl;
// }
if (!goodFit) // (not good fit so increase weight in the centre and weight
// for constant and linear terms)
{
// if (iIt == 7)
// {
// WarningIn
// (
// "FitData<Polynomial>::calcFit"
// "(const List<point>& C, const label facei"
// ) << "Cannot fit face " << facei << " iteration " << iIt
// << " with sum of weights " << sum(coeffsi) << nl
// << " Weights " << coeffsi << nl
// << " Linear weights " << wLin << " " << 1 - wLin << nl
// << " sing vals " << svd.S() << endl;
// }
wts[0] *= 10;
if (linearCorrection_)
{
wts[1] *= 10;
}
for(label j = 0; j < B.m(); j++)
{
B[0][j] *= 10;
B[1][j] *= 10;
}
for(label i = 0; i < B.n(); i++)
{
B[i][0] *= 10;
B[i][1] *= 10;
}
}
}
if (goodFit)
{
if (linearCorrection_)
{
// Remove the uncorrected linear coefficients
coeffsi[0] -= wLin;
coeffsi[1] -= 1 - wLin;
}
else
{
// Remove the uncorrected upwind coefficients
coeffsi[0] -= 1.0;
}
}
else
{
// if (debug)
// {
WarningIn
(
"FitData<Polynomial>::calcFit(..)"
) << "Could not fit face " << facei
<< " Weights = " << coeffsi
<< ", reverting to linear." << nl
<< " Linear weights " << wLin << " " << 1 - wLin << endl;
// }
coeffsi = 0;
}
}
Foam::label Foam::quadraticFitSnGradData::calcFit
(
const List<point>& C,
const label faci
)
{
vector idir(1,0,0);
vector jdir(0,1,0);
vector kdir(0,0,1);
findFaceDirs(idir, jdir, kdir, mesh(), faci);
scalarList wts(C.size(), scalar(1));
wts[0] = centralWeight_;
wts[1] = centralWeight_;
point p0 = mesh().faceCentres()[faci];
scalar scale = 0;
// calculate the matrix of the polynomial components
scalarRectangularMatrix B(C.size(), minSize_, scalar(0));
for(label ip = 0; ip < C.size(); ip++)
{
const point& p = C[ip];
scalar px = (p - p0)&idir;
scalar py = (p - p0)&jdir;
#ifdef SPHERICAL_GEOMETRY
scalar pz = mag(p) - mag(p0);
#else
scalar pz = (p - p0)&kdir;
#endif
if (ip == 0) scale = max(max(mag(px), mag(py)), mag(pz));
px /= scale;
py /= scale;
pz /= scale;
label is = 0;
B[ip][is++] = wts[0]*wts[ip];
B[ip][is++] = wts[0]*wts[ip]*px;
B[ip][is++] = wts[ip]*sqr(px);
if (dim_ >= 2)
{
B[ip][is++] = wts[ip]*py;
B[ip][is++] = wts[ip]*px*py;
B[ip][is++] = wts[ip]*sqr(py);
}
if (dim_ == 3)
{
B[ip][is++] = wts[ip]*pz;
B[ip][is++] = wts[ip]*px*pz;
//B[ip][is++] = wts[ip]*py*pz;
B[ip][is++] = wts[ip]*sqr(pz);
}
}
// Set the fit
label stencilSize = C.size();
fit_[faci].setSize(stencilSize);
scalarList singVals(minSize_);
label nSVDzeros = 0;
const scalar& deltaCoeff = mesh().deltaCoeffs()[faci];
bool goodFit = false;
for(int iIt = 0; iIt < 10 && !goodFit; iIt++)
{
SVD svd(B, SMALL);
scalar fit0 = wts[0]*wts[0]*svd.VSinvUt()[1][0]/scale;
scalar fit1 = wts[0]*wts[1]*svd.VSinvUt()[1][1]/scale;
goodFit =
fit0 < 0 && fit1 > 0
&& mag(fit0 + deltaCoeff) < 0.5*deltaCoeff
&& mag(fit1 - deltaCoeff) < 0.5*deltaCoeff;
if (goodFit)
{
fit_[faci][0] = fit0;
fit_[faci][1] = fit1;
for(label i = 2; i < stencilSize; i++)
{
fit_[faci][i] = wts[0]*wts[i]*svd.VSinvUt()[1][i]/scale;
}
singVals = svd.S();
nSVDzeros = svd.nZeros();
}
else // (not good fit so increase weight in the centre and for linear)
{
wts[0] *= 10;
wts[1] *= 10;
for(label i = 0; i < B.n(); i++)
{
B[i][0] *= 10;
B[i][1] *= 10;
}
for(label j = 0; j < B.m(); j++)
{
B[0][j] *= 10;
B[1][j] *= 10;
}
}
}
if (goodFit)
{
// remove the uncorrected snGradScheme coefficients
fit_[faci][0] += deltaCoeff;
fit_[faci][1] -= deltaCoeff;
}
else
{
Pout<< "quadratifFitSnGradData could not fit face " << faci
<< " fit_[faci][0] = " << fit_[faci][0]
<< " fit_[faci][1] = " << fit_[faci][1]
<< " deltaCoeff = " << deltaCoeff << endl;
fit_[faci] = 0;
}
return minSize_ - nSVDzeros;
}
void Foam::CentredFitSnGradData<Polynomial>::calcFit
(
scalarList& coeffsi,
const List<point>& C,
const scalar wLin,
const scalar deltaCoeff,
const label facei
)
{
vector idir(1,0,0);
vector jdir(0,1,0);
vector kdir(0,0,1);
this->findFaceDirs(idir, jdir, kdir, facei);
// Setup the point weights
scalarList wts(C.size(), scalar(1));
wts[0] = this->centralWeight();
wts[1] = this->centralWeight();
// Reference point
point p0 = this->mesh().faceCentres()[facei];
// p0 -> p vector in the face-local coordinate system
vector d;
// Local coordinate scaling
scalar scale = 1;
// Matrix of the polynomial components
scalarRectangularMatrix B(C.size(), this->minSize(), scalar(0));
forAll(C, ip)
{
const point& p = C[ip];
const vector p0p = p - p0;
d.x() = p0p & idir;
d.y() = p0p & jdir;
d.z() = p0p & kdir;
if (ip == 0)
{
scale = cmptMax(cmptMag((d)));
}
// Scale the radius vector
d /= scale;
Polynomial::addCoeffs(B[ip], d, wts[ip], this->dim());
}
// Additional weighting for constant and linear terms
for (label i = 0; i < B.m(); i++)
{
B(i, 0) *= wts[0];
B(i, 1) *= wts[0];
}
// Set the fit
label stencilSize = C.size();
coeffsi.setSize(stencilSize);
bool goodFit = false;
for (int iIt = 0; iIt < 8 && !goodFit; iIt++)
{
SVD svd(B, small);
scalarRectangularMatrix invB(svd.VSinvUt());
for (label i=0; i<stencilSize; i++)
{
coeffsi[i] = wts[1]*wts[i]*invB(1, i)/scale;
}
goodFit =
(
mag(wts[0]*wts[0]*invB(0, 0) - wLin)
< this->linearLimitFactor()*wLin)
&& (mag(wts[0]*wts[1]*invB(0, 1) - (1 - wLin)
) < this->linearLimitFactor()*(1 - wLin))
&& coeffsi[0] < 0 && coeffsi[1] > 0
&& mag(coeffsi[0] + deltaCoeff) < 0.5*deltaCoeff
&& mag(coeffsi[1] - deltaCoeff) < 0.5*deltaCoeff;
if (!goodFit)
{
// (not good fit so increase weight in the centre and weight
// for constant and linear terms)
WarningInFunction
<< "Cannot fit face " << facei << " iteration " << iIt
<< " with sum of weights " << sum(coeffsi) << nl
<< " Weights " << coeffsi << nl
<< " Linear weights " << wLin << " " << 1 - wLin << nl
<< " deltaCoeff " << deltaCoeff << nl
<< " sing vals " << svd.S() << nl
<< "Components of goodFit:\n"
<< " wts[0]*wts[0]*invB(0, 0) = "
<< wts[0]*wts[0]*invB(0, 0) << nl
<< " wts[0]*wts[1]*invB(0, 1) = "
<< wts[0]*wts[1]*invB(0, 1)
<< " dim = " << this->dim() << endl;
wts[0] *= 10;
wts[1] *= 10;
for (label j = 0; j < B.n(); j++)
{
B(0, j) *= 10;
B(1, j) *= 10;
}
for (label i = 0; i < B.m(); i++)
{
B(i, 0) *= 10;
B(i, 1) *= 10;
}
}
}
if (goodFit)
{
// Remove the uncorrected coefficients
coeffsi[0] += deltaCoeff;
coeffsi[1] -= deltaCoeff;
}
else
{
WarningInFunction
<< "Could not fit face " << facei
<< " Coefficients = " << coeffsi
<< ", reverting to uncorrected." << endl;
coeffsi = 0;
}
}