void TestBandMatrixArith_D1()
{
std::vector<tmv::BandMatrixView<T> > b;
std::vector<tmv::BandMatrixView<std::complex<T> > > cb;
MakeBandList(b,cb);
const int N = b[0].rowsize();
tmv::Matrix<T> a1(N,N);
for (int i=0; i<N; ++i) for (int j=0; j<N; ++j) a1(i,j) = T(3+i-5*j);
tmv::Matrix<std::complex<T> > ca1(N,N);
for (int i=0; i<N; ++i) for (int j=0; j<N; ++j)
ca1(i,j) = std::complex<T>(3+i-5*j,4-8*i-j);
tmv::UpperTriMatrix<T,tmv::NonUnitDiag|tmv::RowMajor> u1(a1);
tmv::UpperTriMatrix<std::complex<T>,tmv::NonUnitDiag|tmv::RowMajor> cu1(ca1);
tmv::UpperTriMatrixView<T> u1v = u1.view();
tmv::UpperTriMatrixView<std::complex<T> > cu1v = cu1.view();
tmv::UpperTriMatrix<T,tmv::NonUnitDiag> u1x = u1v;
tmv::UpperTriMatrix<std::complex<T>,tmv::NonUnitDiag> cu1x = cu1v;
#if (XTEST & 2)
tmv::UpperTriMatrix<T,tmv::UnitDiag|tmv::RowMajor> u2(a1);
tmv::UpperTriMatrix<T,tmv::NonUnitDiag|tmv::ColMajor> u3(a1);
tmv::UpperTriMatrix<T,tmv::UnitDiag|tmv::ColMajor> u4(a1);
tmv::LowerTriMatrix<T,tmv::NonUnitDiag|tmv::RowMajor> l1(a1);
tmv::LowerTriMatrix<T,tmv::UnitDiag|tmv::RowMajor> l2(a1);
tmv::LowerTriMatrix<T,tmv::NonUnitDiag|tmv::ColMajor> l3(a1);
tmv::LowerTriMatrix<T,tmv::UnitDiag|tmv::ColMajor> l4(a1);
tmv::UpperTriMatrix<std::complex<T>,tmv::UnitDiag|tmv::RowMajor> cu2(ca1);
tmv::UpperTriMatrix<std::complex<T>,tmv::NonUnitDiag|tmv::ColMajor> cu3(ca1);
tmv::UpperTriMatrix<std::complex<T>,tmv::UnitDiag|tmv::ColMajor> cu4(ca1);
tmv::LowerTriMatrix<std::complex<T>,tmv::NonUnitDiag|tmv::RowMajor> cl1(ca1);
tmv::LowerTriMatrix<std::complex<T>,tmv::UnitDiag|tmv::RowMajor> cl2(ca1);
tmv::LowerTriMatrix<std::complex<T>,tmv::NonUnitDiag|tmv::ColMajor> cl3(ca1);
tmv::LowerTriMatrix<std::complex<T>,tmv::UnitDiag|tmv::ColMajor> cl4(ca1);
tmv::UpperTriMatrixView<T> u2v = u2.view();
tmv::UpperTriMatrixView<T> u3v = u3.view();
tmv::UpperTriMatrixView<T> u4v = u4.view();
tmv::LowerTriMatrixView<T> l1v = l1.view();
tmv::LowerTriMatrixView<T> l2v = l2.view();
tmv::LowerTriMatrixView<T> l3v = l3.view();
tmv::LowerTriMatrixView<T> l4v = l4.view();
tmv::UpperTriMatrixView<std::complex<T> > cu2v = cu2.view();
tmv::UpperTriMatrixView<std::complex<T> > cu3v = cu3.view();
tmv::UpperTriMatrixView<std::complex<T> > cu4v = cu4.view();
tmv::LowerTriMatrixView<std::complex<T> > cl1v = cl1.view();
tmv::LowerTriMatrixView<std::complex<T> > cl2v = cl2.view();
tmv::LowerTriMatrixView<std::complex<T> > cl3v = cl3.view();
tmv::LowerTriMatrixView<std::complex<T> > cl4v = cl4.view();
#endif
for(size_t i=START;i<b.size();i++) {
if (showstartdone) {
std::cerr<<"Start loop "<<i<<std::endl;
std::cerr<<"bi = "<<b[i]<<std::endl;
}
tmv::BandMatrixView<T> bi = b[i];
tmv::BandMatrixView<std::complex<T> > cbi = cb[i];
TestMatrixArith4(bi,cbi,u1v,cu1v,"Band/UpperTri");
TestMatrixArith5(bi,cbi,u1v,cu1v,"Band/UpperTri");
TestMatrixArith6x(bi,cbi,u1v,cu1v,"Band/UpperTri");
#if (XTEST & 2)
TestMatrixArith4(bi,cbi,l1v,cl1v,"Band/LowerTri");
TestMatrixArith5(bi,cbi,l1v,cl1v,"Band/LowerTri");
TestMatrixArith6x(bi,cbi,l1v,cl1v,"Band/LowerTri");
TestMatrixArith4(bi,cbi,u2v,cu2v,"Band/UpperTri");
TestMatrixArith5(bi,cbi,u2v,cu2v,"Band/UpperTri");
TestMatrixArith6x(bi,cbi,u2v,cu2v,"Band/UpperTri");
TestMatrixArith4(bi,cbi,l2v,cl2v,"Band/LowerTri");
TestMatrixArith5(bi,cbi,l2v,cl2v,"Band/LowerTri");
TestMatrixArith6x(bi,cbi,l2v,cl2v,"Band/LowerTri");
TestMatrixArith4(bi,cbi,u3v,cu3v,"Band/UpperTri");
TestMatrixArith5(bi,cbi,u3v,cu3v,"Band/UpperTri");
TestMatrixArith6x(bi,cbi,u3v,cu3v,"Band/UpperTri");
TestMatrixArith4(bi,cbi,l3v,cl3v,"Band/LowerTri");
TestMatrixArith5(bi,cbi,l3v,cl3v,"Band/LowerTri");
TestMatrixArith6x(bi,cbi,l3v,cl3v,"Band/LowerTri");
TestMatrixArith4(bi,cbi,u4v,cu4v,"Band/UpperTri");
TestMatrixArith5(bi,cbi,u4v,cu4v,"Band/UpperTri");
TestMatrixArith6x(bi,cbi,u4v,cu4v,"Band/UpperTri");
TestMatrixArith4(bi,cbi,l4v,cl4v,"Band/LowerTri");
TestMatrixArith5(bi,cbi,l4v,cl4v,"Band/LowerTri");
TestMatrixArith6x(bi,cbi,l4v,cl4v,"Band/LowerTri");
#endif
}
}
void ParticleSystem::Tick( float time ) {
if( !m_running ) {
return;
}
std::size_t particles_size = m_particles.size();
for( std::size_t index = 0; index < particles_size; ) {
m_particles[ index ].life += time;
if( m_particles[ index ].life >= m_particles[ index ].lifetime ) {
m_particles.erase( m_particles.begin() );
particles_size--;
continue;
}
m_particles[ index ].velocity += ( m_particles[ index ].acceleration * time );
m_particles[ index ].position += ( m_particles[ index ].velocity * time );
++index;
}
if( !m_emitting ) {
return;
}
std::size_t emitters_size = m_emitters.size();
for( std::size_t index = 0; index < emitters_size; ++index ) {
m_emitters[ index ].queue += m_emitters[ index ].rate * time;
while( m_emitters[ index ].queue >= 1.0f ) {
Particle particle = m_emitters[ index ].prototype;
particle.life = 0.0f;
particle.lifetime = m_emitters[ index ].prototype.lifetime;
particle.size_start = m_emitters[ index ].prototype.size_start;
particle.size_end = m_emitters[ index ].prototype.size_end;
particle.color_start.r = m_emitters[ index ].prototype.color_start.r;
particle.color_start.g = m_emitters[ index ].prototype.color_start.g;
particle.color_start.b = m_emitters[ index ].prototype.color_start.b;
particle.color_start.a = m_emitters[ index ].prototype.color_start.a;
particle.color_end.r = m_emitters[ index ].prototype.color_end.r;
particle.color_end.g = m_emitters[ index ].prototype.color_end.g;
particle.color_end.b = m_emitters[ index ].prototype.color_end.b;
particle.color_end.a = m_emitters[ index ].prototype.color_end.a;
std::uniform_real_distribution<float> u1( -m_emitters[ index ].spread, m_emitters[ index ].spread );
float angle = u1( rng );
float start_dist = 0.0f;
std::uniform_real_distribution<float> u2( m_emitters[ index ].radius_start, m_emitters[ index ].radius_end );
start_dist = u2( rng );
sf::Vector2f acceleration = particle.acceleration;
sf::Vector2f velocity = particle.velocity;
sf::Vector2f position = sf::Vector2f( start_dist * static_cast<float>( cos( angle ) ), start_dist * static_cast<float>( sin( angle ) ) );
velocity = sf::Vector2f( velocity.x * static_cast<float>( cos( angle ) ) -
velocity.y * static_cast<float>( sin( angle ) ) ,
velocity.x * static_cast<float>( sin( angle ) ) +
velocity.y * static_cast<float>( cos( angle ) ) );
acceleration = sf::Vector2f( acceleration.x * static_cast<float>( cos( angle ) ) -
acceleration.y * static_cast<float>( sin( angle ) ) ,
acceleration.x * static_cast<float>( sin( angle ) ) +
acceleration.y * static_cast<float>( cos( angle ) ) );
particle.position = position;
particle.acceleration = acceleration;
particle.velocity = velocity;
m_particles.push_back( particle );
particles_size++;
m_emitters[ index ].queue -= 1.0f;
}
}
}
int
main()
{
std::cout.setf(std::ios_base::boolalpha);
std::polynomial<double> P({0.0, 1.0, 2.0, 3.0});
std::cout << "P = " << P << std::endl;
std::cout << "+P = " << +P << std::endl;
std::cout << "-P = " << -P << std::endl;
std::cout << "P = " << P << std::endl;
std::cout << "degree(P) = " << P.degree() << std::endl;
std::polynomial<double> Q({2.0, 1.0});
std::cout << "Q = " << Q << std::endl;
std::cout << "degree(Q) = " << Q.degree() << std::endl;
std::cout << "P + Q = " << P + Q << std::endl;
std::cout << "P - Q = " << P - Q << std::endl;
std::cout << "P * Q = " << P * Q << std::endl;
std::cout << "P / Q = " << P / Q << std::endl;
std::cout << "P % Q = " << P % Q << std::endl;
double b = 5.0;
std::cout << "b = " << b << std::endl;
std::cout << "P + b = " << P + b << std::endl;
std::cout << "P - b = " << P - b << std::endl;
std::cout << "P * b = " << P * b << std::endl;
std::cout << "P / b = " << P / b << std::endl;
std::cout << "P % b = " << P % b << std::endl;
double a = 2.0;
std::cout << "a = " << a << std::endl;
std::cout << "a + Q = " << a + Q << std::endl;
std::cout << "a - Q = " << a - Q << std::endl;
std::cout << "a * Q = " << a * Q << std::endl;
std::cout << "a / Q = " << a / Q << std::endl;
std::cout << "a % Q = " << a % Q << std::endl;
std::polynomial<double> B;// = b;
B = b;
std::cout << "B = " << B << std::endl;
std::cout << "P % B = " << P % B << std::endl;
Q = {0.0, -2.0, 4.0, -6.0, 8.0, -12.0};
std::cout << "Q = " << Q << std::endl;
std::polynomial<double> P2;
P2 = P;
std::cout << "P2 = " << P2 << std::endl;
std::cout << "P2 == P = " << (P2 == P) << std::endl;
for (int i = 0; i <= 100; ++i)
{
double x = i * 0.1;
std::cout << "P(" << x << ") = " << P(x) << std::endl;
}
std::polynomial<std::complex<double>>
CP({std::complex<double>(0.0, -1.0),
std::complex<double>(1.0, -2.0),
std::complex<double>(2.0, -3.0),
std::complex<double>(3.0, -4.0)});
std::cout << "CP = " << CP << std::endl;
std::cout << "CP * CP = " << CP * CP << std::endl;
std::polynomial<int> IP({0, 1, 2, 3});
std::cout << "IP = " << IP << std::endl;
std::cout << "IP * IP = " << IP * IP << std::endl;
std::array<double, 10> arr;
P.eval(1.0, arr);
std::cout << "P(" << 1.0 << ") =";
for (int i = 0; i < arr.size(); ++i)
std::cout << " " << arr[i];
std::cout << std::endl;
P.eval(1.0, arr.begin(), arr.end());
std::cout << "P(" << 1.0 << ") =";
for (auto iarr = arr.cbegin(); iarr != arr.cend(); ++iarr)
std::cout << " " << *iarr;
std::cout << std::endl;
std::istringstream is("(-2.0, -1.0, 0.0)");
std::polynomial<double> R;
is >> R;
std::cout << "R = " << R << std::endl;
std::istringstream is2("(5.0)");
std::polynomial<double> S;
is2 >> S;
std::cout << "S = " << S << std::endl;
std::istringstream is3("42.0");
std::polynomial<double> T;
is3 >> T;
std::cout << "T = " << T << std::endl;
std::polynomial<double> u({1.0, 3.0, 3.0, 1.0});
std::polynomial<double> v({1.0, 1.0});
std::polynomial<double> q, r;
std::divmod(u, v, q, r);
std::cout << "u = " << u << std::endl;
std::cout << "v = " << v << std::endl;
std::cout << "q = " << q << std::endl;
std::cout << "r = " << r << std::endl;
std::polynomial<double> u1({1.0, -3.0, 3.0, -1.0});
std::polynomial<double> v1({1.0, -2.0, 1.0});
std::polynomial<double> q1, r1;
std::divmod(u1, v1, q1, r1);
std::cout << "u1 = " << u1 << std::endl;
std::cout << "v1 = " << v1 << std::endl;
std::cout << "q1 = " << q1 << std::endl;
std::cout << "r1 = " << r1 << std::endl;
std::polynomial<double> u2({1.0, 1.0});
std::polynomial<double> v2({1.0, 3.0, 3.0, 1.0});
std::polynomial<double> q2, r2;
std::divmod(u2, v2, q2, r2);
std::cout << "u2 = " << u2 << std::endl;
std::cout << "v2 = " << v2 << std::endl;
std::cout << "q2 = " << q2 << std::endl;
std::cout << "r2 = " << r2 << std::endl;
std::polynomial<double> u3({1.0, 0.0, 0.0, 1.0});
std::polynomial<double> v3({1.0, 3.0, 3.0, 1.0});
std::polynomial<double> q3, r3;
std::divmod(u3, v3, q3, r3);
std::cout << "u3 = " << u3 << std::endl;
std::cout << "v3 = " << v3 << std::endl;
std::cout << "q3 = " << q3 << std::endl;
std::cout << "r3 = " << r3 << std::endl;
std::cout << "P = " << P << std::endl;
std::cout << "P' = " << P.derivative() << std::endl;
std::cout << "I = " << P.integral(42.0) << std::endl;
//std::array<double, 5> aaa{{1.1, 2.2, 3.3, 4.4, 5.5}};
//std::cout << "aaa = " << std::polynomial_eval(aaa, 3.13149) << std::endl;
}
int main(int argc, char *argv[])
{
#include "setRootCase.H"
#include "createTime.H"
#include "createMesh.H"
#include "createFields.H"
// simpleControl simple(mesh);
// * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * * //
Info<< "\nCalculating scalar transport\n" << endl;
// #include "CourantNo.H"
//vector lambda(0,0,0); //createfields
vectorField lambda(1, vector(0,0,0));
//Info<< "lambda " << lambda << endl;
scalar theta = 0.6; //0.6;
//label patchID_to = mesh.boundaryMesh().findPatchID("to");
//const fvPatchVectorField fvp = U.boundaryField()[patchID_to];
//fileName fvp(runTime.path()/runTime.timeName());
//OFstream os(fvp);
//while (simple.loop())
while (runTime.loop())
{
Info<< "Time = " << runTime.timeName() << nl << endl;
# include "readSIMPLEControls.H"
//modify processorBC
//identify patchID
label patchID_from = mesh.boundaryMesh().findPatchID("from");
label patchID_to = mesh.boundaryMesh().findPatchID("to");
//declaring Field<vector> given size
vectorField u1(1);
//surfaceVectorField second_exchange(vector(0,0,0));
//fvPatchField<vector> second_exchange = U.boundaryField()[patchID_to];
vectorField u2(1);
if (Pstream::myProcNo() == 0) {
//receive first_exchange from processor 1
IPstream::read(Pstream::blocking, 1,
reinterpret_cast<char*>(u2.begin()),
u2.byteSize());
//updating velocity at processor patch
fixedValueFvPatchVectorField& procVel =
refCast<fixedValueFvPatchVectorField>(U.boundaryField()[patchID_from]);
u1 = -(U.boundaryField()[patchID_from]).snGrad();
OPstream::write(Pstream::nonBlocking, 1,
reinterpret_cast<char*>(u1.begin()),
u1.byteSize());
lambda = (theta * u2 ) +
(1.0-theta)*lambda;
Pout<< "grad(u2): " << u1 << endl;
forAll(procVel, i)
{
procVel[i] = lambda[i];
}
//
}
else if (Pstream::myProcNo() == 1) {
void testParse1() {
// Test some valid constructions
vmime::utility::url u1("", "");
VASSERT_EQ("1.1", true, parseHelper(u1, "protocol://*****:*****@host:12345/path/"));
VASSERT_EQ("1.2", "protocol", u1.getProtocol());
VASSERT_EQ("1.3", "user", u1.getUsername());
VASSERT_EQ("1.4", "password", u1.getPassword());
VASSERT_EQ("1.5", "host", u1.getHost());
VASSERT_EQ("1.6", 12345, u1.getPort());
VASSERT_EQ("1.7", "/path/", u1.getPath());
vmime::utility::url u2("", "");
VASSERT_EQ("2.1", true, parseHelper(u2, "protocol://user@host:12345/path/"));
VASSERT_EQ("2.2", "protocol", u2.getProtocol());
VASSERT_EQ("2.3", "user", u2.getUsername());
VASSERT_EQ("2.4", "", u2.getPassword());
VASSERT_EQ("2.5", "host", u2.getHost());
VASSERT_EQ("2.6", 12345, u2.getPort());
VASSERT_EQ("2.7", "/path/", u2.getPath());
vmime::utility::url u3("", "");
VASSERT_EQ("3.1", true, parseHelper(u3, "protocol://host:12345/path/"));
VASSERT_EQ("3.2", "protocol", u3.getProtocol());
VASSERT_EQ("3.3", "", u3.getUsername());
VASSERT_EQ("3.4", "", u3.getPassword());
VASSERT_EQ("3.5", "host", u3.getHost());
VASSERT_EQ("3.6", 12345, u3.getPort());
VASSERT_EQ("3.7", "/path/", u3.getPath());
vmime::utility::url u4("", "");
VASSERT_EQ("4.1", true, parseHelper(u4, "protocol://host/path/"));
VASSERT_EQ("4.2", "protocol", u4.getProtocol());
VASSERT_EQ("4.3", "", u4.getUsername());
VASSERT_EQ("4.4", "", u4.getPassword());
VASSERT_EQ("4.5", "host", u4.getHost());
VASSERT_EQ("4.6", vmime::utility::url::UNSPECIFIED_PORT, u4.getPort());
VASSERT_EQ("4.7", "/path/", u4.getPath());
vmime::utility::url u5("", "");
VASSERT_EQ("5.1", true, parseHelper(u5, "protocol://host/"));
VASSERT_EQ("5.2", "protocol", u5.getProtocol());
VASSERT_EQ("5.3", "", u5.getUsername());
VASSERT_EQ("5.4", "", u5.getPassword());
VASSERT_EQ("5.5", "host", u5.getHost());
VASSERT_EQ("5.6", vmime::utility::url::UNSPECIFIED_PORT, u4.getPort());
VASSERT_EQ("5.7", "", u5.getPath());
vmime::utility::url u6("", "");
VASSERT_EQ("6.1", true, parseHelper(u4, "protocol://host/path/file"));
VASSERT_EQ("6.2", "protocol", u4.getProtocol());
VASSERT_EQ("6.3", "", u4.getUsername());
VASSERT_EQ("6.4", "", u4.getPassword());
VASSERT_EQ("6.5", "host", u4.getHost());
VASSERT_EQ("6.6", vmime::utility::url::UNSPECIFIED_PORT, u4.getPort());
VASSERT_EQ("6.7", "/path/file", u4.getPath());
}
int compare( const void *arg1, const void *arg2 )
{
try {
const I_MapItem *i1 = *reinterpret_cast<I_MapItem**>(const_cast<void*>(arg1));
const I_MapItem *i2 = *reinterpret_cast<I_MapItem**>(const_cast<void*>(arg2));
C_TextPtr text1(const_cast<I_MapItem*>(i1));
C_TextPtr text2(const_cast<I_MapItem*>(i2));
if (text1 && !text2) {
return 1;
}
else if (text2 && !text1) {
return -1;
}
C_PicturePtr pic1(const_cast<I_MapItem*>(i1));
C_PicturePtr pic2(const_cast<I_MapItem*>(i2));
if (pic1 && !pic2) {
return 1;
}
else if (pic2 && !pic1) {
return -1;
}
C_PositionPtr p1(const_cast<I_MapItem*>(i1));
C_PositionPtr p2(const_cast<I_MapItem*>(i2));
if (p1 && p2) {
C_Area area1(p1.GetPoints());
C_Area area2(p2.GetPoints());
int n = 0;
int cnt1 = area1.GetLength();
int cnt2 = area2.GetLength();
if (0 == cnt1) {
return -1;
}
if (0 == cnt2) {
return 1;
}
POINT3D *ptr1 = area1[cnt1 - 1];
POINT3D *ptr2 = area2[cnt2 - 1];
if (ptr1->x < 0 && ptr2->x > 0) {
n = -1;
}
else if (ptr1->x > 0 && ptr2->x < 0) {
n = 1;
}
else if (ptr1->y < ptr2->y) {
n = -1;
}
else if (ptr1->y > ptr2->y) {
n = 1;
}
if (0 == n) {
if (cnt1 < cnt2) {
n = -1;
}
else if (cnt1 > cnt2) {
n = 1;
}
}
if (0 != n) {
return n;
}
}
C_UniquePtr u1(const_cast<I_MapItem*>(i1));
C_UniquePtr u2(const_cast<I_MapItem*>(i2));
if (!u1 && !u2) {
return 0;
}
else if (!u1) {
return -1;
}
else if (!u2) {
return 1;
}
else {
BSTR bs1 = NULL;
BSTR bs2 = NULL;
u1->get_UID(&bs1);
u2->get_UID(&bs2);
int n = ::wcscmp(bs1, bs2);
String::FreeBSTR(&bs1);
String::FreeBSTR(&bs2);
return n;
}
}
catch (C_STLNonStackException const &exception) {
exception.Log(_T("Exception in Items.cpp (compare)"));
}
return 0;
}
void test()
{
//tests
DRMatrix m1(DRMatrix::identity());
float mat[] = {1.0f, 0.0f, 0.0f, 0.0f,
0.0f, 1.0f, 0.0f, 0.0f,
0.0f, 0.0f, 1.0f, 0.0f,
0.0f, 0.0f, 0.0f, 1.0f};
if(memcmp(m1, mat, sizeof(float)*16) != 0)
LOG_WARNING("matrix identity isn't valid");
DRMatrix m2 = m1.rotationX(30.0f);
DRMatrix m3 = DRMatrix::axis(DRVector3(1.0f, 0.0f, 0.0f),
DRVector3(0.0f, 1.0f, 0.0f),
DRVector3(0.0f, 0.0f, 1.0));
if(memcmp(m1, m3, sizeof(float)*16) != 0)
LOG_WARNING("matrix axis isn't valid");
DREngineLog.writeMatrixToLog(m1);
DREngineLog.writeMatrixToLog(m2);
DREngineLog.writeMatrixToLog(m3);
DRVector3 rot1(1.0f, 0.0f, 0.0f);
m2 = DRMatrix::rotationY(90.0f);
rot1 = rot1.transformCoords(m2);
DREngineLog.writeVector3ToLog(rot1, "1/0/0 90 Grad um y-Achse rotiert");
rot1 = rot1.transformCoords(m2.invert());
DREngineLog.writeVector3ToLog(rot1, "zurueckrotiert, 1/0/0 erwartet!");
DREngineLog.writeToLog("RekursionTest: %d", rekursionTest(0));
//Speicher test
/* LOG_INFO("Speichertest");
std::list<void*> pointer;
void* t = NULL;
u32 count = 0;
do
{
t = malloc(16384);
if(t) pointer.push_back(t);
count++;
if(count > 192073)
break;
} while(t);
DRLog.writeToLog("count: %d, %u kByte wurden reserviert!", count, count*16384/1024);
for(std::list<void*>::iterator it = pointer.begin(); it != pointer.end(); it++)
free(*it);
pointer.clear();
//* */
// Unit test
printf("\n");
Unit parsec(1.0, PARSEC);
Unit lj = parsec.convertTo(LIGHTYEAR);
DREngineLog.writeToLog("%s -> %s", parsec.print().data(), lj.print().data());
lj = Unit(1.0, LIGHTYEAR);
parsec = lj.convertTo(PARSEC);
DREngineLog.writeToLog("%s -> %s", lj.print().data(), parsec.print().data());
Unit ae = lj.convertTo(AE);
DREngineLog.writeToLog("%s -> %s", lj.print().data(), ae.print().data());
ae = parsec.convertTo(AE);
DREngineLog.writeToLog("%s -> %s", parsec.print().data(), ae.print().data());
parsec = ae.convertTo(PARSEC);
DREngineLog.writeToLog("%s -> %s", ae.print().data(), parsec.print().data());
Unit m = parsec.convertTo(M);
DREngineLog.writeToLog("%s -> %s", parsec.print().data(), m.print().data());
Unit kpc(1.0, KILOPARSEC);
m = kpc.convertTo(M);
DREngineLog.writeToLog("%s -> %s", kpc.print().data(), m.print().data());
m = Unit(1.0, M);
kpc = m.convertTo(KILOPARSEC);
DREngineLog.writeToLog("%s -> %s", m.print().data(), kpc.print().data());
printf("\n");
Unit aes(0.005, AE);
DREngineLog.writeToLog("%s -> %s", aes.print().data(), aes.convertTo(KM).print().data());
//Vector Unit Test
Vector3Unit u1(100, 200, 70, M), u2(1, 0, 0, KILOPARSEC), u3(100, 20, 17, LIGHTYEAR);
u1.print("u1");
u2.print("u2");
u3.print("u3");
u1 *= Unit(20, KM);
u1.print("u1* 20 km");
Vector3Unit(u1 + u2).print("u1+u2");
Vector3Unit(u2+u3).print("u2+u3");
Vector3Unit(u1*Unit(1, LIGHTYEAR)).print("u1*1 Lichtjahr");
DRVector3 v(1.0f, 7.0f, 2.0f);
DREngineLog.writeVector3ToLog(v, "init");
v = v.normalize();
DREngineLog.writeVector3ToLog(v, "normalized");
v *= 7.0f;
DREngineLog.writeVector3ToLog(v, "multiplikator");
// ---------------------------------- ReferenzHolder Test --------------------------------
DREngineLog.writeToLog("DRIndexReferenzHolder test");
DRIndexReferenzHolder referenzHolder(10);
uint tests[10];
tests[0] = referenzHolder.getFree();
referenzHolder.add(tests[0]);
tests[1] = referenzHolder.getFree();
DREngineLog.writeToLog("index1 (0): %d, index2 (1): %d", tests[0], tests[1]);
referenzHolder.remove(tests[0]);
tests[2] = referenzHolder.getFree();
referenzHolder.remove(tests[1]);
tests[3] = referenzHolder.getFree();
DREngineLog.writeToLog("index3 (2): %d, index4 (1): %d", tests[2], tests[3]);
for(int i = 0; i < 5; i++)
tests[4+i] = referenzHolder.getFree();
referenzHolder.remove(tests[7]);
tests[9] = referenzHolder.getFree();
DREngineLog.writeToLog("index10: (6): %d", tests[9]);
DRTextureManager::Instance().test();
// Random Test
}
// ------------------
BigInt::Vin BigInt::Vin::operator+ (const BigInt::Vin& i_arg) const
{
BigInt::Vin ret;
const std::size_t maxSize (std::max (m_units.size (), i_arg.m_units.size ()));
std::vector<BigInt::Ulong> u1 (m_units);
std::vector<BigInt::Ulong> u2 (i_arg.m_units);
// ---------------------
try
{
u1.reserve(maxSize);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do u1.reserve("
<< maxSize
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
// ---------------------
try
{
u2.reserve(maxSize);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do u2.reserve("
<< maxSize
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
// ---------------------
try
{
ret.m_units.reserve(maxSize + 1);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do ret.m_units.reserve("
<< (maxSize + 1)
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
// ---------------------
try
{
u1.resize(maxSize);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do u1.resize("
<< maxSize
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
// ---------------------
try
{
u2.resize(maxSize);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do u2.resize("
<< maxSize
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
// ---------------------
try
{
ret.m_units.resize(maxSize);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do ret.m_units.resize("
<< maxSize
<< ")"
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
s_carry = 0;
std::transform (&u1[0], &u1[0] + maxSize, &u2[0], &ret.m_units[0], BigInt::Vin::addUnits);
if (s_carry)
{
try
{
ret.m_units.push_back (s_carry);
}
catch(...)
{
std::ostringstream ossThrow;
std::ostringstream ossErr;
ossErr << ""
<< "Unable to to do ret.m_units.push_back()"
<< "; "
<< "ret.m_units.size() = "
<< ret.m_units.size()
<< std::endl;
ERR_MSG (std::cerr, ossErr.str());
ERR_MSG (ossThrow, ossErr.str());
throw std::runtime_error (ossThrow.str().c_str());
}
}
return ret;
}
// semi-lagrangian solver
void DogSolverCart2::DogSolveUser(double tstart, double tend)
{
// this accomodates the maximum number of stages allowed for the
// split method ... and is a work in progress ...
const int MAX_STAGES = 13;
const edge_data& EdgeData = Legendre2d::instance().get_edgeData();
dTensorBC3& smax = fetch_smax();
DogStateCart2* dogStateCart2 = &fetch_state();
dTensorBC4& qnew = fetch_state().fetch_q();
dTensorBC4& qold = fetch_state_old().fetch_q();
dTensorBC4& aux = fetch_state().fetch_aux();
const int nv = dogParams.get_nv();
const double* cflv = dogParams.get_cflv();
// --------------------------------------------------------------
// define local variables
int m_accept;
const int mx = qnew.getsize(1);
const int my = qnew.getsize(2);
const int maux = aux.getsize(3);
const int meqn = qnew.getsize(3);
const int kmax = qnew.getsize(4);
const int mbc = qnew.getmbc();
const int ndims = 2;
int n_step = 0;
double t = tstart;
double tn = t;
double told = 0.0;
double dt = get_dt();
const double CFL_max = cflv[1];
const double CFL_target = cflv[2];
double cfl = 0.0;
double dtmin = dt;
double dtmax = dt;
dTensorBC4 qstar(mx,my,meqn,kmax,mbc); //temporary place holder
dTensorBC4 aux_old(mx,my,maux,kmax,mbc);
//////////////////////////////////////////////////////////////////////////
// Setup for manipulating velocities. Store 2 arrays, 1 for each velocity
//////////////////////////////////////////////////////////////////////////
// array for storing advection speeds in each cell
const int mpoints = int((1+4*kmax-int(sqrt(1+8*kmax)))/2);
const int mpoints1d = int(sqrt(mpoints));
const int morder = mpoints1d;
dTensorBC2 u1(my, mpoints1d, mbc, ndims-1); // speed, u(y) (ndims == 1 )
dTensorBC2 u2(mx, mpoints1d, mbc, ndims-1); // speed, v(x) (ndims == 1 )
////////Set up any extra state variables associated with this problem /////
SL_state sl_state;
sl_state.split_time = new dTensor2(MAX_STAGES, 2);
sl_state.aux1d = new dTensorBC4( Max(mx,my), 2, 4, mpoints1d, mbc, 1);
sl_state.node1d = new dTensor2(mx+1,1);
for( int i=1; i <=(mx+1); i++)
{ sl_state.node1d->set(i, 1, dogParamsCart2.get_xl(i) ); }
sl_state.qold = &qold;
sl_state.qnew = &qnew;
const double dx = dogParamsCart2.get_dx();
const double dy = dogParamsCart2.get_dy();
// sample grid points (gauss points)
dTensor2* spts = new dTensor2(mpoints, 2);
//legendre polys evaluated at spts
dTensor2 phi(mpoints, kmax);
dTensor1 x1d(mpoints1d);
dTensor1 wgt(mpoints1d);
void setGaussPoints1d(dTensor1& w1d, dTensor1& x1d);
setGaussPoints1d(wgt, x1d);
// Tensor product Gaussian Quadrature
// See note at top of code in how mpoints are arranged here...
int k=0;
for (int m1=1; m1<=(mpoints1d); m1++)
for (int m2=1; m2<=(mpoints1d); m2++)
{
k = k+1;
//save gauss quad grid point location on interval [-1,1]^2
spts->set(k,2, x1d.get(m1) );
spts->set(k,1, x1d.get(m2) );
}
//evaluate the legendre polynomials at sample points
for(int m=1; m <= mpoints; m++)
{
double xi, xi2,xi3,xi4, eta, eta2,eta3,eta4;
//find xi and eta (point to be evaluated)
xi = spts->get(m,1);
eta = spts->get(m,2);
xi2 = xi*xi;
xi3 = xi*xi2;
xi4 = xi*xi3;
eta2 = eta*eta;
eta3 = eta*eta2;
eta4 = eta*eta3;
// Legendre basis functions evaluated at (xi,eta) in the
// interval [-1,1]x[-1,1].
switch( mpoints1d )
{
case 5: // fifth order
phi.set( m,15, 105.0/8.0*eta4 - 45.0/4.0*eta2 + 9.0/8.0 );
phi.set( m,14, 105.0/8.0*xi4 - 45.0/4.0*xi2 + 9.0/8.0 );
phi.set( m,13, 5.0/4.0*(3.0*xi2 - 1.0)*(3.0*eta2 - 1.0) );
phi.set( m,12, sq3*sq7*(2.5*eta3 - 1.5*eta)*xi );
phi.set( m,11, sq3*sq7*(2.5*xi3 - 1.5*xi)*eta );
case 4: // fourth order
phi.set( m,10, sq7*(2.5*eta3 - 1.5*eta) );
phi.set( m,9, sq7*(2.5*xi3 - 1.5*xi) );
phi.set( m,8, sq3*sq5*xi*(1.5*eta2 - 0.5) );
phi.set( m,7, sq3*sq5*eta*(1.5*xi2 - 0.5) );
case 3: // third order
phi.set( m,6, sq5*(1.5*eta2 - 0.5) );
phi.set( m,5, sq5*(1.5*xi2 - 0.5) );
phi.set( m,4, 3.0*xi*eta );
case 2: // second order
phi.set( m,3, sq3*eta );
phi.set( m,2, sq3*xi );
case 1: // first order
phi.set( m,1, 1.0 );
}
}//end of evaluating legendre polys at sample grid points indexed by spts
delete spts;
///////////////////////////////////////////////////////////////////////////
double time1, time2; // running time values
time1 = GetTime(); //running time for this program (can remove this..)
// fourth order splitting coefficients
dTensor1* dt_stages;
if( dogParams.get_time_order() >= 2 )
{
dt_stages = new dTensor1(MAX_STAGES);
sl_state.dt_stages = dt_stages;
}
///////////////////////////////////////////////////////////////////////////
// Main Time Stepping Loop
///////////////////////////////////////////////////////////////////////////
while (t<tend)
{
// initialize time step
m_accept = 0;
n_step = n_step + 1;
// check if max number of time steps exceeded
if (n_step>nv)
{
cout << " Error in DogSolveAdvec.cpp: "<<
" Exceeded allowed # of time steps " << endl;
cout << " n_step = " << n_step << endl;
cout << " nv = " << nv << endl;
cout << endl;
exit(1);
}
// copy qnew and aux in case we reject the step
CopyQ(qnew,qold);
CopyQ(qnew,qstar);
CopyQ(aux,aux_old);
// keep trying until we get a dt that does not violate CFL condition
while (m_accept==0)
{
// set current time
told = t;
tn = t;
if (told+dt > tend) { dt = tend - told; }
t = told + dt;
// Set initial maximum wave speed to zero (this will be saved in
// SetAdvecSpeed)
for (int i=(1-mbc); i<=(mx+mbc); i++)
for (int j=(1-mbc); j<=(my+mbc); j++)
{
smax.set(i,j,1, 0.0e0 );
smax.set(i,j,2, 0.0e0 );
}
sl_state.dt = dt;
sl_state.t = sl_state.tn = tn;
void InitSLState( const dTensorBC4& q, const dTensorBC4& aux,
SL_state& sl_state );
InitSLState( qnew, aux, sl_state );
CopyQ(qold, qstar);
/////////////////////////////////////
// Perform a full time step
/////////////////////////////////////
switch ( dogParams.get_time_order() )
{
case 0: // used for testing - dont' take any time steps!
BeforeStep (dt, aux, qnew, *this);
AfterStep (dt, aux, qnew, *this);
perror( " case 0: Not taking a time step! " );
break;
case 1: // 1st order in time, no corrections
sl_state.t = tn;
BeforeStep(dt, aux, qstar, *this);
SetAdvecSpeed(phi, qstar, aux, smax, 1, u1, u2, sl_state);
SetAdvecSpeed(phi, qstar, aux, smax, 2, u1, u2, sl_state);
StepAdvec(dt, qold, qstar, aux, u1, u2, 1, sl_state);
StepAdvec(dt, qstar, qnew, aux, u1, u2, 2, sl_state);
break;
case 2: // 2nd order in time (strang split method)
SetSplitTime(dt, 2, tn, sl_state, dt_stages );
sl_state.stage_num = 1;
sl_state.t = tn;
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(0.5*dt, qstar, qnew, aux, u1, u2, 1, sl_state );
// Poisson solve called in BeforeStep for VP system
// BeforeStep(dt, aux, qstar );
sl_state.stage_num = 2;
BeforeStep(dt, aux, qnew, *this);
sl_state.t = tn;
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(dt, qnew, qstar, aux, u1, u2, 2, sl_state );
sl_state.stage_num = 3;
sl_state.t = tn + 0.5*dt;
StepAdvec(0.5*dt, qstar, qnew, aux, u1, u2, 1, sl_state);
break;
case 4: // 4th order method (Yoshida Splitting)
// initial setup ... Save all appropriate times into SL_state
SetSplitTime(dt, 4, tn, sl_state, dt_stages );
///////////////////////////////////////////////////////////
///// There are 7 stages for Yoshida Splitting /////
///////////////////////////////////////////////////////////
///////// stage 1: A //////////////////////////////////////
sl_state.stage_num = 1;
sl_state.t = sl_state.split_time->get(1,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(1), qstar, qnew, aux, u1, u2, 1, sl_state );
///////// stage 2: B //////////////////////////////////////
sl_state.stage_num = 2;
sl_state.t = sl_state.split_time->get(2,2);
SetAdvecSpeed( phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(2), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 3: A //////////////////////////////////////
sl_state.stage_num = 3;
sl_state.t = sl_state.split_time->get(3,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(3), qstar , qnew, aux, u1, u2, 1, sl_state);
///////// stage 4: B //////////////////////////////////////
sl_state.stage_num = 4;
sl_state.t = sl_state.split_time->get(4,2);
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(4), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 5: A //////////////////////////////////////
sl_state.stage_num = 5;
sl_state.t = sl_state.split_time->get(5,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(5), qstar, qnew, aux, u1, u2, 1, sl_state);
///////// stage 6: B //////////////////////////////////////
sl_state.stage_num = 6;
sl_state.t = sl_state.split_time->get(6,2);
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(6), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 7: A //////////////////////////////////////
sl_state.stage_num = 7;
sl_state.t = sl_state.split_time->get(7,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(7), qstar , qnew, aux, u1, u2, 1, sl_state);
//////////////// --- Experimental New Time Stepping --- ///////////////////
// ///////// stage 1: A //////////////////////////////////////
// sl_state.stage_num = 1;
// sl_state.t = sl_state.split_time->get(1,1);
// SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(1), qstar, qnew, aux, u1, u2, 1, sl_state );
// ///////// stage 2: B //////////////////////////////////////
// sl_state.stage_num = 2;
// sl_state.t = sl_state.split_time->get(2,2);
// SetAdvecSpeed( phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(2), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 3: A //////////////////////////////////////
// sl_state.stage_num = 3;
// sl_state.t = sl_state.split_time->get(3,1);
// StepAdvec(sl_state.dt_stages->get(3), qstar , qnew, aux, u1, u2, 1, sl_state);
// ///////// stage 4: B //////////////////////////////////////
// sl_state.stage_num = 4;
// sl_state.t = sl_state.split_time->get(4,2);
// SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(4), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 5: A //////////////////////////////////////
// sl_state.stage_num = 5;
// sl_state.t = sl_state.split_time->get(5,1);
// StepAdvec(sl_state.dt_stages->get(5), qstar, qnew, aux, u1, u2, 1, sl_state);
// ///////// stage 6: B //////////////////////////////////////
// sl_state.stage_num = 6;
// sl_state.t = sl_state.split_time->get(6,2);
// SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(6), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 7: A //////////////////////////////////////
// sl_state.stage_num = 7;
// sl_state.t = sl_state.split_time->get(7,1);
// StepAdvec(sl_state.dt_stages->get(7), qstar , qnew, aux, u1, u2, 1, sl_state);
// ///////// stage 8: B //////////////////////////////////////
// sl_state.stage_num = 8;
// sl_state.t = sl_state.split_time->get(8,2);
// SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(8), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 9: A //////////////////////////////////////
// sl_state.stage_num = 9;
// sl_state.t = sl_state.split_time->get(9,1);
// StepAdvec(sl_state.dt_stages->get(9), qstar , qnew, aux, u1, u2, 1, sl_state);
// ///////// stage 10: B //////////////////////////////////////
// sl_state.stage_num = 10;
// sl_state.t = sl_state.split_time->get(10,2);
// SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(10), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 11: A //////////////////////////////////////
// sl_state.stage_num = 11;
// sl_state.t = sl_state.split_time->get(11,1);
// StepAdvec(sl_state.dt_stages->get(11), qstar , qnew, aux, u1, u2, 1, sl_state);
// ///////// stage 12: B //////////////////////////////////////
// sl_state.stage_num = 12;
// sl_state.t = sl_state.split_time->get(12,2);
// SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
// StepAdvec(sl_state.dt_stages->get(12), qnew, qstar, aux, u1, u2, 2, sl_state);
// ///////// stage 13: A //////////////////////////////////////
// sl_state.stage_num = 13;
// sl_state.t = sl_state.split_time->get(13,1);
// StepAdvec(sl_state.dt_stages->get(13), qstar , qnew, aux, u1, u2, 1, sl_state);
//////////////// --- Experimental New Time Stepping --- ///////////////////
break;
case 6: // 6th order method (SRKN Splitting)
// Added by Pierson Guthrey 5/22/2015
// initial setup ... Save all appropriate times into SL_state
SetSplitTime(dt, 6, tn, sl_state, dt_stages );
///////// stage 1: A //////////////////////////////////////
sl_state.stage_num = 1;
sl_state.t = sl_state.split_time->get(1,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(1), qstar, qnew, aux, u1, u2, 1, sl_state );
///////// stage 2: B //////////////////////////////////////
sl_state.stage_num = 2;
sl_state.t = sl_state.split_time->get(2,2);
SetAdvecSpeed( phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(2), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 3: A //////////////////////////////////////
sl_state.stage_num = 3;
sl_state.t = sl_state.split_time->get(3,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(3), qstar , qnew, aux, u1, u2, 1, sl_state);
///////// stage 4: B //////////////////////////////////////
sl_state.stage_num = 4;
sl_state.t = sl_state.split_time->get(4,2);
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(4), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 5: A //////////////////////////////////////
sl_state.stage_num = 5;
sl_state.t = sl_state.split_time->get(5,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(5), qstar, qnew, aux, u1, u2, 1, sl_state );
///////// stage 6: B //////////////////////////////////////
sl_state.stage_num = 6;
sl_state.t = sl_state.split_time->get(6,2);
SetAdvecSpeed( phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(6), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 7: A //////////////////////////////////////
sl_state.stage_num = 7;
sl_state.t = sl_state.split_time->get(7,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(7), qstar , qnew, aux, u1, u2, 1, sl_state);
///////// stage 8: B //////////////////////////////////////
sl_state.stage_num = 8;
sl_state.t = sl_state.split_time->get(8,2);
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(8), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 9: A //////////////////////////////////////
sl_state.stage_num = 9;
sl_state.t = sl_state.split_time->get(9,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(9), qstar, qnew, aux, u1, u2, 1, sl_state );
///////// stage 10: B //////////////////////////////////////
sl_state.stage_num = 10;
sl_state.t = sl_state.split_time->get(10,2);
SetAdvecSpeed( phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(10), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 11: A //////////////////////////////////////
sl_state.stage_num = 11;
sl_state.t = sl_state.split_time->get(11,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(11), qstar , qnew, aux, u1, u2, 1, sl_state);
///////// stage 12: B //////////////////////////////////////
sl_state.stage_num = 12;
sl_state.t = sl_state.split_time->get(12,2);
SetAdvecSpeed(phi, qnew, aux, smax, 2, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(12), qnew, qstar, aux, u1, u2, 2, sl_state);
///////// stage 13: A //////////////////////////////////////
sl_state.stage_num = 13;
sl_state.t = sl_state.split_time->get(13,1);
SetAdvecSpeed( phi, qstar, aux, smax, 1, u1, u2, sl_state);
StepAdvec(sl_state.dt_stages->get(13), qstar , qnew, aux, u1, u2, 1, sl_state);
default:
// still here? too bad! Pick a valid time stepping
// method
fprintf(stderr,
"Bad time stepping method chosen in DogSolveAdvec\n");
fprintf(stderr,
"dogParams.get_time_order() = %d\n",
dogParams.get_time_order());
exit(1);
}// end of taking a full time step
// compute cfl number
cfl = GetCFL(dt);
// output time step information
if (dogParams.get_verbosity()>0)
{
cout << setprecision(3);
cout << "DogSolve2D ... Step" << setw(5) << n_step;
cout << " CFL =" << setw(6) << fixed << cfl;
cout << " dt =" << setw(11) << scientific << dt;
cout << " t =" << setw(11) << scientific << t << endl;
}
if (cfl>0.0)
{ dt = Min(dogParams.get_max_dt(),dt*CFL_target/cfl); }
else
{ dt = dogParams.get_max_dt(); }
// see whether to accept or reject this step
if (cfl<=CFL_max)
{ // accept
m_accept = 1;
dogStateCart2->set_time(t);
dogParams.set_time(t); // time hack
}
else
{ //reject
t = told;
if (dogParams.get_verbosity()>0)
{
cout<<"DogSolve2D rejecting step...";
cout<<"CFL number too large";
cout<<endl;
// find index of larger value...
int imax = 1; int jmax = 1; int dmax = 1;
for( int i = 1; i <= smax.getsize(1); i++ )
for( int j = 1; j <= smax.getsize(2); j++ )
for( int d = 1; d <= ndims; d++ )
{
if( smax.get(i,j,d) > smax.get(imax,jmax,dmax) )
{ imax = i; jmax = j; dmax = d;}
}
printf(" imax = %d, jmax = %d, dmax = %d\n", imax, jmax, dmax );
printf(" smax(imax,jmax,dmax) = %3.2e\n", smax.get(imax, jmax, dmax ) );
}
// copy qold into qnew
CopyQ(qold,qnew);
CopyQ(aux_old,aux);
}
}
void AfterFullSLTimeStep( dTensorBC4& aux, dTensorBC4& qnew, double t );
AfterFullSLTimeStep(aux, qnew, t );
// apply the limiter - This way global integrals stay positive
void ApplyPosLimiter(const dTensorBC4& aux, dTensorBC4& q);
if(dogParams.using_moment_limiter())
{ ApplyPosLimiter(aux, qnew); }
// compute conservation and print to file
ConSoln(aux,qnew,t);
}
void AfterSLFrame(double dt, dTensorBC4& aux, dTensorBC4& q, DogSolverCart2&
solver, SL_state sl_state );
AfterSLFrame(dt, aux, qnew, *this, sl_state );
// set initial time step for next call to DogSolveAdvec
set_dt(dt);
// Clock the running time for this call to DogSolveAdvec
time2 = GetTime();
if(dogParams.get_verbosity()>0)
{
cout << " DogSolveAdvec Running Time = "
<< setw(3) << time2 - time1 << " seconds" << endl << endl;
}
if( dogParams.get_time_order() >= 2 )
{
delete dt_stages;
}
delete sl_state.split_time;
delete sl_state.aux1d;
delete sl_state.node1d;
}
// Tests mapping from Stieltjes basis to original is correct
TEUCHOS_UNIT_TEST( Stokhos_StieltjesPCEBasis, ExpMap ) {
Stokhos::OrthogPolyApprox<int,double> u2(setup.basis);
setup.st_1d_basis->transformCoeffsFromStieltjes(setup.u_st.coeff(),
u2.coeff());
success = Stokhos::comparePCEs(setup.u, "u", u2, "u2", setup.rtol, setup.atol, out);
}
void loop()
{
size_t iter = 0;
while( (!Lambda.empty()) && (iter < max_iter) )
{
if(verbosity >= 2)
cout<<"Iteration: "<<iter<<endl;
else if(verbosity == 1 && (iter%10)==0)
cout<<"Iteration: "<<iter<<endl;
Undefined u = Lambda.front();
Lambda.pop();
double energy2, m2, b2,min_m, min_b, min_energy;
double energy3, m3, b3;
//short_array min_x = minimizer->minimize( u.x_l, u.lambda, min_energy, min_m, min_b, true);
short_array min_x = minimizer->minimize( u.x_l, u.lambda, min_energy, min_m, min_b, false);
short_array x2 = minimizer->minimize( u.x_r, u.lambda, energy2, m2, b2, false);
short_array x3 = minimizer->minimize( u.x_r, u.lambda, energy3, m3, b3, true);
if(min_energy > energy2 && min_energy > energy3)
e1++;
else if( energy2 > energy3 && energy2 > min_energy)
e2++;
else if( energy3 > energy2 && energy3 > min_energy)
e3++;
if( energy2 < min_energy)
{
min_m = m2;
min_b = b2;
min_energy = energy2;
min_x = x2;
}
if(energy3 < min_energy)
{
min_m = m3;
min_b = b3;
min_energy = energy3;
min_x = x3;
}
//if( !compare( min_x, u.x_l, u.lambda) && !compare(min_x, u.x_r, u.lambda) )
{
LineSegment l( min_m, min_b, lambda_min, lambda_max, false );
kmc.addLineSegment(l);
if(verbosity >= 2)
cout<<"* Adding line segment: "<<l<<endl;
int num_intersections = kmc.num_intersections;
if( num_intersections > 1 && (kmc.intersecting_lambda[0] != kmc.intersecting_lambda[num_intersections -1] ) )
{ // had intersections
cout.precision(16);
if(verbosity >= 1)
{
cout<<"\t Had intersections at "<< kmc.intersecting_lambda[0]<<", "<<kmc.intersecting_lambda[num_intersections-1]<<endl;
cout<<"\t\t Energies are: "<< fixed << kmc.intersecting_energies[0]<<", "<<fixed<<kmc.intersecting_energies[num_intersections-1]<<endl;
}
double lambda_l = kmc.intersecting_lambda[0];
double lambda_r = kmc.intersecting_lambda[num_intersections - 1];
int index_l = kmc.intersecting_indexes[0];
int index_r = kmc.intersecting_indexes[num_intersections - 1];
if(index_r - index_l > 1 )
labelings.erase( labelings.begin() + index_l + 1, labelings.begin() + index_r);
Undefined u1( lambda_l, labelings[index_l], min_x );
Undefined u2( lambda_r, labelings[index_r], min_x );
Lambda.push(u1);
Lambda.push(u2);
labelings.insert( labelings.begin() + index_l + 1, min_x);
}
}
//else
//{
//}
iter++;
}
if(iter == max_iter)
cout<<"Maximum number of iterations reached"<<endl;
cout<<"Done in "<<iter<<" iterations."<<endl;
cout<<KBCYN<<"[e1, e2, e3] = ["<<e1<<", "<<e2<<", "<<e3<<"]"<<KNRM<<endl;
if(verbosity >= 1)
cout<<kmc<<endl;
if(verbosity >= 2)
{
/*cout<<"labelings:"<<endl;
for(size_t i = 0; i < labelings.size(); i++)
{
cout<<labelings[i][0]<<" ";
}
cout<<endl;*/
}
}
template < > ElementMatrix < double > & ElementMatrix < double >::u2(const MeshEntity & ent){
uint nVerts = ent.nodeCount();
if (size() != nVerts) resize(nVerts);
for (uint i = 0; i < nVerts; i ++) idx_[i] = ent.node(i).id();
switch(ent.rtti()){
case MESH_BOUNDARY_NODE_RTTI:
mat_[0][0] = 1.0;
break;
case MESH_EDGE_CELL_RTTI:
case MESH_EDGE_RTTI:
//{
// double J = ent.shape().jacobianDeterminant();
// if (J < 0) {
// std::cerr << WHERE_AM_I << "JacobianDeterminant < 0 (" << J << ")" << std::endl;
// std::cerr << ent.shape() << std::endl;
// J = std::fabs(J);
// }
// mat_[0][0] = J / 3.0;
// mat_[1][0] = J / 6.0;
// mat_[0][1] = J / 6.0;
// mat_[1][1] = J / 3.0;
// std::cout << "2 " << *this << std::endl;
/*}
break;*/
u2(ent, IntegrationRules::instance().edgWeights(2), IntegrationRules::instance().edgAbscissa(2), false);
break;
case MESH_EDGE3_CELL_RTTI:
case MESH_EDGE3_RTTI:
//{
// double J = ent.shape().jacobianDeterminant();
// if (J < 0) {
// std::cerr << WHERE_AM_I << "JacobianDeterminant < 0 (" << J << ")" << std::endl;
// std::cerr << ent.shape() << std::endl;
// J = std::fabs(J);
// }
// mat_[0][0] = J / 30.0 * 4.0;
// mat_[1][0] = - J / 30.0;
// mat_[2][0] = J / 15.0;
// mat_[0][1] = - J / 30.0;
// mat_[1][1] = J / 30.0 * 4.0;
// mat_[2][1] = J / 15.0;
// mat_[0][2] = J / 15.0;
// mat_[1][2] = J / 15.0;
// mat_[2][2] = J / 30.0 * 16.0;
// std::cout << "2 " << *this << std::endl;
//} break;
u2(ent, IntegrationRules::instance().edgWeights(3), IntegrationRules::instance().edgAbscissa(3), false);
break;
case MESH_TRIANGLE_RTTI:
case MESH_TRIANGLEFACE_RTTI:
//{
// double J = ent.shape().jacobianDeterminant();
// if (J < 0) {
// std::cerr << WHERE_AM_I << "JacobianDeterminant < 0 (" << J << ")" << std::endl;
// std::cerr << ent.shape() << std::endl;
// J = std::fabs(J);
// }
// double Jl = J / 24.0;
// mat_[0][0] = Jl * 2.0;
// mat_[1][0] = Jl;
// mat_[2][0] = Jl;
// mat_[0][1] = Jl;
// mat_[1][1] = Jl * 2.0;
// mat_[2][1] = Jl;
// mat_[0][2] = Jl;
// mat_[1][2] = Jl;
// mat_[2][2] = Jl * 2.0;
// std::cout << "2 " << *this << std::endl;
//}break;
u2(ent, IntegrationRules::instance().triWeights(2), IntegrationRules::instance().triAbscissa(2), false);
break;
case MESH_QUADRANGLE_RTTI:
case MESH_QUADRANGLEFACE_RTTI:
u2(ent, IntegrationRules::instance().quaWeights(2), IntegrationRules::instance().quaAbscissa(2), false);
break;
case MESH_QUADRANGLE8_RTTI:
case MESH_QUADRANGLEFACE8_RTTI:
u2(ent, IntegrationRules::instance().quaWeights(3), IntegrationRules::instance().quaAbscissa(3), false);
break;
case MESH_TRIANGLE6_RTTI:
case MESH_TRIANGLEFACE6_RTTI:
//{
// double J = ent.shape().jacobianDeterminant();
// if (J < 0) {
// std::cerr << WHERE_AM_I << "JacobianDeterminant < 0 (" << J << ")" << std::endl;
// std::cerr << ent.shape() << std::endl;
// J = std::fabs(J);
// }
// for (uint i = 0; i < nVerts; i++){
// for (uint j = 0; j < nVerts; j++){
// mat_[i][j] = J * (*Tri6_u2)[i][j];//compound[i][j];
// }
// }
// std::cout << "2 " << *this << std::endl;
//} break;
return u2(ent, IntegrationRules::instance().triWeights(4), IntegrationRules::instance().triAbscissa(4), false); //ch
case MESH_TETRAHEDRON_RTTI:
return u2(ent, IntegrationRules::instance().tetWeights(2), IntegrationRules::instance().tetAbscissa(2), false);
case MESH_TETRAHEDRON10_RTTI:
return u2(ent, IntegrationRules::instance().tetWeights(4), IntegrationRules::instance().tetAbscissa(4), false);
case MESH_HEXAHEDRON_RTTI:
return u2(ent, IntegrationRules::instance().hexWeights(2), IntegrationRules::instance().hexAbscissa(2), false);
case MESH_HEXAHEDRON20_RTTI:
return u2(ent, IntegrationRules::instance().hexWeights(4), IntegrationRules::instance().hexAbscissa(4), false);
case MESH_TRIPRISM_RTTI:
return u2(ent, IntegrationRules::instance().priWeights(2), IntegrationRules::instance().priAbscissa(2), false);
case MESH_TRIPRISM15_RTTI:
return u2(ent, IntegrationRules::instance().priWeights(4), IntegrationRules::instance().priAbscissa(4), false);
default:
std::cerr << ent.rtti() << std::endl;
THROW_TO_IMPL
}
return *this;
}
void Raytracer::render( int width, int height, Point3D eye, Vector3D view,
Vector3D up, double fov, char* fileName, int aa, int fl, bool dof ) {
Matrix4x4 viewToWorld;
width = width * aa;
height = height * aa;
double factor = (double(height)/2)/tan(fov*M_PI/360.0);
viewToWorld = initInvViewMatrix(eye, view, up);
initAABuffer(aa, width, height);
_scrWidth = width / aa;
_scrHeight = height / aa;
initPixelBuffer();
// Construct a ray for each pixel.
for (int i = 0; i < height; i++) {
for (int j = 0; j < width; j++) {
// Sets up ray origin and direction in view space,
// image plane is at z = -1.
Point3D origin(0, 0, 0);
Point3D imagePlane;
imagePlane[0] = (-double(width)/2 + 0.5 + j)/factor;
imagePlane[1] = (-double(height)/2 + 0.5 + i)/factor;
imagePlane[2] = -1;
Ray3D ray;
ray.origin = viewToWorld * origin;
ray.dir = viewToWorld * imagePlane - ray.origin;
ray.dir.normalize();
Colour col(0,0,0);
//implement depth of field if true
if (dof == true) {
//generate a point in the scene as part of the focal plane
Vector3D pointAimed = (ray.origin + fl * ray.dir) - Point3D(0,0,0);
float r = 1;
Colour pc(0,0,0);
for (int px=0; px < 15; px++) {
float du = ((float) rand())/(float(RAND_MAX));
float dv = ((float) rand())/(float(RAND_MAX));
//x and y axis of camera/eye
Vector4D u = viewToWorld.getColumn(1);
Vector4D v = viewToWorld.getColumn(0);
//convert them to 3d vectors;
Vector3D u2(u[0],u[1],u[2]);
Vector3D v2(v[0],v[1],v[2]);
//convert ray.origin to vector for vector operation;
Vector3D tempv(ray.origin[0], ray.origin[1], ray.origin[2]);
//generate random point around the eye (vector is used for operation)
Vector3D eyev = tempv - (r/2)*u2 - (r/2)*v2 + r*(du)*u2 + r*(dv)*v2;
//generate a ray from random point to pointAimed
Ray3D dovr;
dovr.dir = pointAimed - eyev;
dovr.origin = Point3D(eyev[0], eyev[1], eyev[2]);
dovr.dir.normalize();
//bounce ray into the scene and get its color
Colour dovCol = shadeRay(dovr, 2);
pc = pc + dovCol;
}
//average the pixel colors to get the blurriness effect
col = (1/15.0) * pc;
} else {
col = shadeRay(ray, 2);
}
col.clamp();
if (aa == 1) {
_rbuffer[i*width+j] = int(col[0]*255);
_gbuffer[i*width+j] = int(col[1]*255);
_bbuffer[i*width+j] = int(col[2]*255);
} else {
re[i*width+j] = int(col[0]*255);
gr[i*width+j] = int(col[1]*255);
bl[i*width+j] = int(col[2]*255);
}
}
}
if (aa == 1) {
flushPixelBuffer(fileName);
} else {
aarender(width, height, aa, fileName);
delete re;
delete gr;
delete bl;
}
}
HRESULT STDMETHODCALLTYPE Win32WebKitPolicyDelegate::decidePolicyForNavigationAction(
/*[in]*/ IWebView* /*webView*/,
/*[in]*/ IPropertyBag* actionInformation,
/*[in]*/ IWebURLRequest* request,
/*[in]*/ IWebFrame* frame,
/*[in]*/ IWebPolicyDecisionListener* listener)
{
/*
BSTR url;
request->URL(&url);
int navType = 0;
VARIANT var;
if (SUCCEEDED(actionInformation->Read(WebActionNavigationTypeKey, &var, 0))) {
V_VT(&var) = VT_I4;
navType = V_I4(&var);
}
const char* typeDescription;
switch (navType) {
case WebNavigationTypeLinkClicked:
typeDescription = "link clicked";
break;
case WebNavigationTypeFormSubmitted:
typeDescription = "form submitted";
break;
case WebNavigationTypeBackForward:
typeDescription = "back/forward";
break;
case WebNavigationTypeReload:
typeDescription = "reload";
break;
case WebNavigationTypeFormResubmitted:
typeDescription = "form resubmitted";
break;
case WebNavigationTypeOther:
typeDescription = "other";
break;
default:
typeDescription = "illegal value";
}
printf("Policy delegate: attempt to load %S with navigation type '%s'\n", url ? url : TEXT(""), typeDescription);
SysFreeString(url);
if (m_permissiveDelegate)
listener->use();
else
listener->ignore();
return S_OK;
*/
BSTR u;
request->URL(&u);
std::wstring u2(u);
std::string url;
url.assign(u2.begin(), u2.end());
// if url matches a window config, then modify window as needed
this->window->UpdateWindowForURL(url);
SysFreeString(u);
listener->use();
return S_OK;
}
void FakeMDEventData::addFakeRandomData(
const std::vector<double> ¶ms,
typename MDEventWorkspace<MDE, nd>::sptr ws) {
bool RandomizeSignal = getProperty("RandomizeSignal");
size_t num = size_t(params[0]);
if (num == 0)
throw std::invalid_argument(
" number of distributed events can not be equal to 0");
Progress prog(this, 0.0, 1.0, 100);
size_t progIncrement = num / 100;
if (progIncrement == 0)
progIncrement = 1;
boost::mt19937 rng;
int randomSeed = getProperty("RandomSeed");
rng.seed((unsigned int)(randomSeed));
// Unit-size randomizer
boost::uniform_real<double> u2(0, 1.0); // Random from 0 to 1.0
boost::variate_generator<boost::mt19937 &, boost::uniform_real<double>>
genUnit(rng, u2);
// Make a random generator for each dimensions
typedef boost::variate_generator<boost::mt19937 &,
boost::uniform_real<double>> gen_t;
// Inserter to help choose the correct event type
auto eventHelper =
MDEvents::MDEventInserter<typename MDEventWorkspace<MDE, nd>::sptr>(ws);
gen_t *gens[nd];
for (size_t d = 0; d < nd; ++d) {
double min = params[d * 2 + 1];
double max = params[d * 2 + 2];
if (max <= min)
throw std::invalid_argument(
"UniformParams: min must be < max for all dimensions.");
boost::uniform_real<double> u(min, max); // Range
gen_t *gen = new gen_t(rng, u);
gens[d] = gen;
}
// Create all the requested events
for (size_t i = 0; i < num; ++i) {
coord_t centers[nd];
for (size_t d = 0; d < nd; d++) {
centers[d] = static_cast<coord_t>(
(*gens[d])()); // use a different generator for each dimension
}
// Default or randomized error/signal
float signal = 1.0;
float errorSquared = 1.0;
if (RandomizeSignal) {
signal = float(0.5 + genUnit());
errorSquared = float(0.5 + genUnit());
}
// Create and add the event.
eventHelper.insertMDEvent(signal, errorSquared, 1, pickDetectorID(),
centers); // 1 = run number
// Progress report
if ((i % progIncrement) == 0)
prog.report();
}
/// Clean up the generators
for (size_t d = 0; d < nd; ++d)
delete gens[d];
}
// Definition of stringsearch() function
void session::stringsearch(){
// Whole body is in loop
// Loop ends if the list is empty or a certain number of urls have been parsed
do{
// File that stores source code of URLs
std::ofstream FILE("source.txt");
std::ofstream wordfile("index.txt", std::ios::app|std::ios::out);
// Object of url class created
url u(list.front());
// Object of Http class (found in SFML) created
// Http class only takes host names as input, so host name passed
sf::Http site(u.host());
//Generate the request, i.e the path within the webpage
sf::Http::Request request(u.path());
// Send the request to generate a response
sf::Http::Response response = site.sendRequest(request);
// Check the status code and display the result
sf::Http::Response::Status status = response.getStatus();
if (status == sf::Http::Response::Ok){
FILE << response.getBody() << std::endl;
}
else{
std::cout << "Error " << status << std::endl;
std::cout << "Skipping webpage. " << std::endl;
list.pop();
continue;
}
FILE.close();
std::cout << "Popping URL: " << list.front() << std::endl << std::endl;
Sleep(1000);
// Condition check to see if file is of html format
if (check_html() == false){
std::cout << "\nWebpage not in html format. Skipping... " << std::endl << std::endl;
list.pop();
continue;
}
// Condition check to ensure URL hasn't been crawled previously. First URL is skipped
if (count > 1 && check_urls(list.front()) == true){
std::cout << "\nWebpage has already been crawled. Skipping...\n\n";
list.pop();
continue;
}
// Opens file for reading
std::ifstream file("source.txt");
std::string s1; // String stores lines from html file
std::string s2 = "href=\""; // Reference string to locate hyperlinks
char s3[300]; // C string variable to store hyperlink URLs
// Condition check to ensure file is open
if (file.is_open()){
do{
// Both string storage variables initialised to null
s1 = "";
std::getline(file, s1); // Gets line by line information from the page source
std::size_t location = s1.find(s2); // Variable to point to location in string
int i = 0;
// Check to see if location is within string, i.e the desired element has been found
if (location != std::string::npos){
std::cout << "Hyperlink found: ";
// Location set to first element of hyperlink
// Adding 6 accounts for the 6 tag characters, i.e href"
std::size_t x = location + 6;
// Loop adds characters to array until quotation mark is reached
while (s1.at(x) != '\"'){
s3[i] = s1.at(x);
x++;
i++;
}
// Last character set to termination character
s3[i] = '\0';
std::string s4 = s3; // Converts C string to std::string
std::cout << s4 << std::endl;
// Creates url object that takes s4 as constructor argument
url u2(s4);
// Condition check to see if hyperlink has a host
// If it doesn't, it means it is an extension of the current webpage
// So current webpage is appended to it
if (u2.host() == ""){
s4 = u.protocol() + "://" + u.host() + s4;
}
std::cout << "Adding URL to queue..." << std::endl;
// Hyperlink is added to queue
list.push(s4);
std::cout << s4 << std::endl << std::endl;
}
if (wordfile.is_open()){
std::string word = "Boost";
std::size_t point = s1.find(word);
if (point != std::string::npos){
// while ()
wordfile << list.front() << std::endl;
wordfile << word << std::endl;
}
// else{
// std::cout << "word not found" << std::endl;
//std::cout << "\n";
// }
}
else{
std::cout << "index could not be opened" << std::endl;
}
} while (!file.eof());
// Adds current webpage to list of URLs parsed
urls_parsed(list.front());
// Removes current webpage from queue
list.pop();
file.close();
wordfile.close();
std::cout << "\n\nCount: " << count << std::endl;
count++;
Sleep(1000);
}
else{
std::cout << "Error in opening file" << std::endl;
exit(-1);
}
//Sleep(1000);
} while (count <= 10 && list.empty() == false);
remove("source.txt");
remove("urls.txt");
return;
}
void FakeMDEventData::addFakePeak(typename MDEventWorkspace<MDE, nd>::sptr ws) {
std::vector<double> params = getProperty("PeakParams");
bool RandomizeSignal = getProperty("RandomizeSignal");
if (params.empty())
return;
if (params.size() != nd + 2)
throw std::invalid_argument("PeakParams needs to have ndims+2 arguments.");
if (params[0] <= 0)
throw std::invalid_argument("PeakParams: number_of_events needs to be > 0");
size_t num = size_t(params[0]);
Progress prog(this, 0.0, 1.0, 100);
size_t progIncrement = num / 100;
if (progIncrement == 0)
progIncrement = 1;
// Width of the peak
double desiredRadius = params.back();
boost::mt19937 rng;
boost::uniform_real<coord_t> u2(0, 1.0); // Random from 0 to 1.0
boost::variate_generator<boost::mt19937 &, boost::uniform_real<coord_t>>
genUnit(rng, u2);
int randomSeed = getProperty("RandomSeed");
rng.seed((unsigned int)(randomSeed));
// Inserter to help choose the correct event type
auto eventHelper =
MDEvents::MDEventInserter<typename MDEventWorkspace<MDE, nd>::sptr>(ws);
for (size_t i = 0; i < num; ++i) {
// Algorithm to generate points along a random n-sphere (sphere with not
// necessarily 3 dimensions)
// from http://en.wikipedia.org/wiki/N-sphere as of May 6, 2011.
// First, points in a hyper-cube of size 1.0, centered at 0.
coord_t centers[nd];
coord_t radiusSquared = 0;
for (size_t d = 0; d < nd; d++) {
centers[d] = genUnit() - 0.5f; // Distribute around +- the center
radiusSquared += centers[d] * centers[d];
}
// Make a unit vector pointing in this direction
coord_t radius = static_cast<coord_t>(sqrt(radiusSquared));
for (size_t d = 0; d < nd; d++)
centers[d] /= radius;
// Now place the point along this radius, scaled with ^1/n for uniformity.
coord_t radPos = genUnit();
radPos = static_cast<coord_t>(
pow(radPos, static_cast<coord_t>(1.0 / static_cast<coord_t>(nd))));
for (size_t d = 0; d < nd; d++) {
// Multiply by the scaling and the desired peak radius
centers[d] *= (radPos * static_cast<coord_t>(desiredRadius));
// Also offset by the center of the peak, as taken in Params
centers[d] += static_cast<coord_t>(params[d + 1]);
}
// Default or randomized error/signal
float signal = 1.0;
float errorSquared = 1.0;
if (RandomizeSignal) {
signal = float(0.5 + genUnit());
errorSquared = float(0.5 + genUnit());
}
// Create and add the event.
eventHelper.insertMDEvent(signal, errorSquared, 1, pickDetectorID(),
centers); // 1 = run number
// Progress report
if ((i % progIncrement) == 0)
prog.report();
}
ws->splitBox();
Kernel::ThreadScheduler *ts = new ThreadSchedulerFIFO();
ThreadPool tp(ts);
ws->splitAllIfNeeded(ts);
tp.joinAll();
ws->refreshCache();
}
void display(void)
{
glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT);
glLoadIdentity();
gluLookAt(r*cos(c*du), h, r*sin(c*du), 0, 0, 0, 0, 3, 0); //head position;eye direction(0.0,0.0,0.0),original point;(0.0,1.0,0.0),head above direction¡£
//cylinder a(1, 15, 0, 90, 0, 0, 5, 0); //r,h,xangle yangle zangle, module position(xx yy zz)
//sphere b(3, 100, 100, 0, 0, 0, 0, 2.5, 0); //r,xangle yangle zangle, module position(xx yy zz)
//cube c(5, 10, 0, 0, 1, 1, 1); //length xangle yangle zangle, module position(xx yy zz)
//rectangularpyramid d(4, 0, 0, 0, 0, 2, 0); //length xangle yangle zangle, module position(xx yy zz)
//triangularpyramid f(2, 0, 0, 0, 8, 8, 8);//length xangle yangle zangle, module position(xx yy zz)
//f.draw();
sphere sp(3, 100, 100, 0, 0, -2, 0, 8, 0);
cylinder cy(3, 5, 0, 90, 0, -3, 9, -10);
cube cu(3, 0, 0, 0, 0, 8, 10);
triangularpyramid tr(2, 0, 0, 0, 0, -6, 8);
rectangularpyramid rec(2, 0, 0, 0, 0, -6, -8);
cylinder k1(0.3, 2, 90, 0, 0, 0, 0, 0);
cylinder k2(0.3, 2, -90, 0, 0, 0, 0, 0);
cylinder k3(0.3, 2, -45, 0, 0, 0, 0, 0);
cylinder k4(0.3, 2.5, 45, 0, 0, 0, 0, 0);
cylinder u1(0.3, 2, 90, 0, 0, 0, 0, 3);
cylinder u2(0.3, 1.5, -90, 0, 0, 0, 0, 3);
cylinder u3(0.3, 2, 0, 0, 0, 0, -1.8, 3);
cylinder u4(0.3, 2, 90, 0, 0, 0, 0, 5);
cylinder u5(0.3, 1.5, -90, 0, 0, 0, 0, 5);
cylinder g1(0.3, 2, -90, 0, 0, 0, -0.5, 6.4);
cylinder g2(0.3, 1.5, -90, 0, 0, 0, -0.5, 6.4);
cylinder g3(0.3, 2, 0, 0, 0, 0, -0.3, 6.4);
cylinder g4(0.3, 2, 0, 0, 0, 0, 1.3, 6.4);
cylinder g5(0.3, 2, 90, 0, 0, 0, 0, 8.4);
cylinder g6(0.3, 1.5, -90, 0, 0, 0, 0, 8.4);
cylinder g7(0.3, 2, 0, 0, 0, 0, -1.8, 6.4);
cylinder e1(0.3, 1.8, -90, 0, 0, 0, -0.2, 10);
cylinder e2(0.3, 1.8, 90, 0, 0, 0, -0.2, 10);
cylinder e3(0.3, 2, 0, 0, 0, 0, -0.3, 10);
cylinder e4(0.3, 2, 0, 0, 0, 0, 1.3, 10);
cylinder e5(0.3, 2, 0, 0, 0, 0, -1.8, 10);
cylinder r1(0.3, 1.8, -90, 0, 0, 0, -0.2, 13.5);
cylinder r2(0.3, 1.8, 90, 0, 0, 0, -0.2, 13.5);
cylinder r3(0.3, 2, 0, 0, 0, 0, -0.3, 13.5);
cylinder r4(0.3, 1.2, 0, 0, 0, 0, 1.3, 13.5);
cylinder r5(0.3, 1.7, 60, 0, 0, 0, 1.3, 14.5);
cylinder r6(0.3, 2.5, 45, 0, 0, 0, 0, 13.5);
cylinder c1(0.3, 2, 90, 0, 0, 0, 0, -15);
cylinder c2(0.3, 2, -90, 0, 0, 0, 0, -15);
cylinder c3(0.3, 3, 0, 0, 0, 0, -1.8, -15);
cylinder c4(0.3, 3, 0, 0, 0, 0, 1.8, -15);
cylinder plus1(0.3,3.5, 0, 0, 0, 0, 0, -11);
cylinder plus2(0.3, 4, 90, 0, 0, 0, 2, -9.2);
cylinder plus3(0.3, 3.5, 0, 0, 0, 0, 0, -6);
cylinder plus4(0.3, 4, 90, 0, 0, 0, 2, -4.2);
cy.draw();
sp.draw();
cu.draw();
tr.draw();
rec.draw();
k1.draw();
k2.draw();
k3.draw();
k4.draw();
u1.draw();
u2.draw();
u3.draw();
u4.draw();
u5.draw();
g1.draw();
g2.draw();
g3.draw();
g4.draw();
g5.draw();
g6.draw();
g7.draw();
e1.draw();
e2.draw();
e3.draw();
e4.draw();
e5.draw();
r1.draw();
r2.draw();
r3.draw();
r4.draw();
r5.draw();
r6.draw();
c1.draw();
c2.draw();
c3.draw();
c4.draw();
plus1.draw();
plus2.draw();
plus3.draw();
plus4.draw();
glFlush();
}
bool checkCreateDatabaseGrant(const MetaName& userName, const MetaName& trustedRole,
const MetaName& sqlRole, const char* securityDb)
{
if (userName == DBA_USER_NAME)
return true;
RefPtr<IAttachment> att;
RefPtr<ITransaction> tra;
bool hasDb = openDb(securityDb, att, tra);
FbLocalStatus st;
MetaName role(sqlRole);
if (hasDb && role.hasData())
{
const UCHAR info[] = { isc_info_db_sql_dialect, isc_info_end };
UCHAR buffer[BUFFER_TINY];
att->getInfo(&st, sizeof(info), info, sizeof(buffer), buffer);
check("IAttachment::getInfo", &st);
int dialect = SQL_DIALECT_V5; // reasonable default
const UCHAR* p = buffer;
while (*p != isc_info_end && *p != isc_info_truncated && p < buffer + sizeof(buffer))
{
const UCHAR item = (UCHAR) *p++;
const USHORT length = gds__vax_integer(p, sizeof(USHORT));
p += sizeof(USHORT);
switch (item)
{
case isc_info_db_sql_dialect:
dialect = gds__vax_integer(p, length);
break;
}
p += length;
}
UserId::makeRoleName(role, dialect);
// We need to check is role granted to userName in security DB
const char* sql = "select count(*) from RDB$USER_PRIVILEGES "
"where RDB$USER = ? and RDB$RELATION_NAME = ? and RDB$PRIVILEGE = 'M'";
Message prm;
Field<Varying> u(prm, MAX_SQL_IDENTIFIER_LEN);
Field<Varying> r(prm, MAX_SQL_IDENTIFIER_LEN);
u = userName.c_str();
r = role.c_str();
Message result;
Field<ISC_INT64> cnt(result);
att->execute(&st, tra, 0, sql, SQL_DIALECT_V6, prm.getMetadata(), prm.getBuffer(),
result.getMetadata(), result.getBuffer());
if (st->getState() & IStatus::STATE_ERRORS)
{
// isc_dsql_relation_err when exec SQL - i.e. table RDB$USER_PRIVILEGES
// is missing due to non-FB security DB
if (!fb_utils::containsErrorCode(st->getErrors(), isc_dsql_relation_err))
check("IAttachment::execute", &st);
role = "";
}
else if (cnt == 0)
role = "";
}
else
role = trustedRole;
if (role == ADMIN_ROLE)
return true;
if (!hasDb)
return false;
// check db creators table
Message gr;
Field<ISC_SHORT> uType(gr);
Field<Varying> u(gr, MAX_SQL_IDENTIFIER_LEN);
Field<ISC_SHORT> rType(gr);
Field<Varying> r(gr, MAX_SQL_IDENTIFIER_LEN);
uType = obj_user;
u = userName.c_str();
rType = role.hasData() ? obj_sql_role : 255;
r = role.c_str();
Message result;
Field<ISC_INT64> cnt(result);
att->execute(&st, tra, 0,
"select count(*) from RDB$DB_CREATORS"
" where (RDB$USER_TYPE = ? and RDB$USER = ?) or (RDB$USER_TYPE = ? and RDB$USER = ?)",
SQL_DIALECT_V6, gr.getMetadata(), gr.getBuffer(), result.getMetadata(), result.getBuffer());
if (st->getState() & IStatus::STATE_ERRORS)
{
if (fb_utils::containsErrorCode(st->getErrors(), isc_dsql_relation_err))
{
// isc_dsql_relation_err when exec SQL - i.e. table RDB$DB_CREATORS
// is missing due to non-FB3 security DB
return false;
}
check("IAttachment::execute", &st);
}
if (cnt > 0)
return true;
if (!role.hasData())
role = "NONE";
Message par2;
Field<ISC_SHORT> uType2(par2);
Field<Varying> u2(par2, MAX_SQL_IDENTIFIER_LEN);
Field<Varying> r2(par2, MAX_SQL_IDENTIFIER_LEN);
uType2 = obj_user;
u2 = userName.c_str();
r2 = role.c_str();
Message res2;
Field<Text> priv(res2, 8);
const char* sql =
"with recursive role_tree as ( "
" select rdb$relation_name as nm, 0 as ur from rdb$user_privileges "
" where rdb$privilege = 'M' and rdb$field_name = 'D' and rdb$user_type = ? and rdb$user = ? "
" union all "
" select rdb$role_name as nm, 1 as ur from rdb$roles "
" where rdb$role_name = ? "
" union all "
" select p.rdb$relation_name as nm, t.ur from rdb$user_privileges p "
" join role_tree t on t.nm = p.rdb$user "
" where p.rdb$privilege = 'M' and (p.rdb$field_name = 'D' or t.ur = 1)) "
"select r.rdb$system_privileges "
" from role_tree t join rdb$roles r on t.nm = r.rdb$role_name ";
RefPtr<IResultSet> rs(REF_NO_INCR, att->openCursor(&st, tra, 0, sql,
SQL_DIALECT_V6, par2.getMetadata(), par2.getBuffer(), res2.getMetadata(), NULL, 0));
check("IAttachment::execute", &st);
UserId::Privileges privileges, wrk;
while (rs->fetchNext(&st, res2.getBuffer()) == IStatus::RESULT_OK)
{
wrk.load(&priv);
privileges |= wrk;
}
check("IResultSet::fetchNext", &st);
return wrk.test(CREATE_DATABASE);
}
scalar essential_bc_values_2(int ess_bdy_marker, double x, double y, double z) {
return u2(x, y, z);
}
void container_test(X& r, T const&)
{
typedef BOOST_DEDUCED_TYPENAME X::iterator iterator;
typedef BOOST_DEDUCED_TYPENAME X::const_iterator const_iterator;
typedef BOOST_DEDUCED_TYPENAME X::difference_type difference_type;
typedef BOOST_DEDUCED_TYPENAME X::size_type size_type;
typedef BOOST_DEDUCED_TYPENAME
boost::iterator_value<iterator>::type iterator_value_type;
typedef BOOST_DEDUCED_TYPENAME
boost::iterator_value<const_iterator>::type const_iterator_value_type;
typedef BOOST_DEDUCED_TYPENAME
boost::iterator_difference<iterator>::type iterator_difference_type;
typedef BOOST_DEDUCED_TYPENAME
boost::iterator_difference<const_iterator>::type
const_iterator_difference_type;
typedef BOOST_DEDUCED_TYPENAME X::value_type value_type;
typedef BOOST_DEDUCED_TYPENAME X::reference reference;
typedef BOOST_DEDUCED_TYPENAME X::const_reference const_reference;
// value_type
BOOST_MPL_ASSERT((boost::is_same<T, value_type>));
boost::function_requires<boost::CopyConstructibleConcept<X> >();
// reference_type / const_reference_type
BOOST_MPL_ASSERT((boost::is_same<T&, reference>));
BOOST_MPL_ASSERT((boost::is_same<T const&, const_reference>));
// iterator
boost::function_requires<boost::InputIteratorConcept<iterator> >();
BOOST_MPL_ASSERT((boost::is_same<T, iterator_value_type>));
BOOST_MPL_ASSERT((boost::is_convertible<iterator, const_iterator>));
// const_iterator
boost::function_requires<boost::InputIteratorConcept<const_iterator> >();
BOOST_MPL_ASSERT((boost::is_same<T, const_iterator_value_type>));
// difference_type
BOOST_MPL_ASSERT((boost::mpl::bool_<
std::numeric_limits<difference_type>::is_signed>));
BOOST_MPL_ASSERT((boost::mpl::bool_<
std::numeric_limits<difference_type>::is_integer>));
BOOST_MPL_ASSERT((boost::is_same<difference_type,
iterator_difference_type>));
BOOST_MPL_ASSERT((boost::is_same<difference_type,
const_iterator_difference_type>));
// size_type
BOOST_MPL_ASSERT_NOT((boost::mpl::bool_<
std::numeric_limits<size_type>::is_signed>));
BOOST_MPL_ASSERT((boost::mpl::bool_<
std::numeric_limits<size_type>::is_integer>));
// size_type can represent any non-negative value type of difference_type
// I'm not sure about either of these tests...
size_type max_diff((std::numeric_limits<difference_type>::max)());
difference_type converted_diff(max_diff);
BOOST_TEST((std::numeric_limits<difference_type>::max)()
== converted_diff);
BOOST_TEST(
static_cast<comparison_type>(
(std::numeric_limits<size_type>::max)()) >
static_cast<comparison_type>(
(std::numeric_limits<difference_type>::max)()));
// I don't test the runtime post-conditions here.
X u;
BOOST_TEST(u.size() == 0);
BOOST_TEST(X().size() == 0);
X a,b;
sink(X(a));
X u2(a);
X u3 = a;
X* ptr = new X();
X& a1 = *ptr;
(&a1)->~X();
X const a_const;
test::check_return_type<iterator>::equals(a.begin());
test::check_return_type<const_iterator>::equals(a_const.begin());
test::check_return_type<const_iterator>::equals(a.cbegin());
test::check_return_type<const_iterator>::equals(a_const.cbegin());
test::check_return_type<iterator>::equals(a.end());
test::check_return_type<const_iterator>::equals(a_const.end());
test::check_return_type<const_iterator>::equals(a.cend());
test::check_return_type<const_iterator>::equals(a_const.cend());
a.swap(b);
test::check_return_type<X>::equals_ref(r = a);
test::check_return_type<size_type>::equals(a.size());
test::check_return_type<size_type>::equals(a.max_size());
test::check_return_type<bool>::convertible(a.empty());
// Allocator
typedef BOOST_DEDUCED_TYPENAME X::allocator_type allocator_type;
test::check_return_type<allocator_type>::equals(a_const.get_allocator());
// Avoid unused variable warnings:
sink(u);
sink(u2);
sink(u3);
}
static inline u2 get_native_u2(address p){
return (intptr_t(p) & 1) == 0
? *(u2*)p
: ( u2(p[0]) << 8 )
| ( u2(p[1]) );
}
void
Quad10_2D_SUPG :: updateStabilizationCoeffs(TimeStep *atTime)
{
double Re, norm_un, mu, mu_min, nu, norm_N, norm_N_d, norm_M_d, norm_LSIC, norm_G_c, norm_M_c, norm_N_c, t_p1, t_p2, t_p3, t_s1, t_s2, t_s3, rho;
FloatMatrix dn, N, N_d, M_d, LSIC, G_c, M_c, N_c;
FloatArray dN, s, lcoords_nodes, u, lcn, dn_a(2), n, u1(8), u2(8);
GaussPoint *gp;
IntegrationRule *iRule;
iRule = integrationRulesArray [ 1 ];
mu_min = 1;
rho = this->giveMaterial()->give('d', integrationRulesArray [ 0 ]->getIntegrationPoint(0));
for ( int j = 0; j < iRule->giveNumberOfIntegrationPoints(); j++ ) {
gp = iRule->getIntegrationPoint(j);
mu = static_cast< FluidDynamicMaterial* >(this->giveMaterial())->giveEffectiveViscosity(gp, atTime);
if ( mu_min > mu ) {
mu_min = mu;
}
nu = mu_min / rho;
}
nu = mu_min / rho;
//this->computeVectorOf(EID_MomentumBalance, VM_Total, atTime->givePreviousStep(), un);
this->computeVectorOf(EID_MomentumBalance, VM_Total, atTime, u);
norm_un = u.computeNorm();
this->computeAdvectionTerm(N, atTime);
this->computeAdvectionDeltaTerm(N_d, atTime);
this->computeMassDeltaTerm(M_d, atTime);
this->computeLSICTerm(LSIC, atTime);
this->computeLinearAdvectionTerm_MC(G_c, atTime);
this->computeMassEpsilonTerm(M_c, atTime);
this->computeAdvectionEpsilonTerm(N_c, atTime);
norm_N = N.computeFrobeniusNorm();
norm_N_d = N_d.computeFrobeniusNorm();
norm_M_d = M_d.computeFrobeniusNorm();
norm_LSIC = LSIC.computeFrobeniusNorm();
norm_G_c = G_c.computeFrobeniusNorm();
norm_M_c = M_c.computeFrobeniusNorm();
norm_N_c = N_c.computeFrobeniusNorm();
if ( ( norm_N == 0 ) || ( norm_N_d == 0 ) || ( norm_M_d == 0 ) ) {
t_supg = 0;
} else {
Re = ( norm_un / nu ) * ( norm_N / norm_N_d );
t_s1 = norm_N / norm_N_d;
t_s2 = atTime->giveTimeIncrement() * ( norm_N / norm_M_d ) * 0.5;
t_s3 = t_s1 * Re;
t_supg = 1. / sqrt( 1. / ( t_s1 * t_s1 ) + 1. / ( t_s2 * t_s2 ) + 1. / ( t_s3 * t_s3 ) );
// t_supg = 0;
}
if ( norm_LSIC == 0 ) {
t_lsic = 0;
} else {
t_lsic = norm_N / norm_LSIC;
// t_lsic = 0;
}
if ( ( norm_G_c == 0 ) || ( norm_N_c == 0 ) || ( norm_M_c == 0 ) ) {
t_pspg = 0;
} else {
Re = ( norm_un / nu ) * ( norm_N / norm_N_d );
t_p1 = norm_G_c / norm_N_c;
t_p2 = atTime->giveTimeIncrement() * ( norm_G_c / norm_M_c ) * 0.5;
t_p3 = t_p1 * Re;
t_pspg = 1. / sqrt( 1. / ( t_p1 * t_p1 ) + 1. / ( t_p2 * t_p2 ) + 1. / ( t_p3 * t_p3 ) );
// t_pspg = 0;
}
//t_pspg = 0;
}
// This should be compiler dependent. This will do for now.
static inline u2 swap_u2(u2 x) {
address p = (address) &x;
return ( (u2(p[0]) << 8 ) | ( u2(p[1])) );
}
void KFMExec::slotMimeType( const char *_type )
{
// A dirty hack for passing the character set
char *typestr=0;
const char *aType=0;
const char *aCharset=0;
if ( _type )
{
typestr=new char[strlen(_type)+1];
strcpy(typestr,_type);
aType=strtok(typestr," ;\t\n");
char *tmp;
while((tmp=strtok(0," ;\t\n"))){
if ( strncmp(tmp,"charset=",8)==0 ) aCharset=tmp+8;
}
if ( aCharset != 0 )
{
tmp=strpbrk((char*)aCharset," ;\t\n");
if ( tmp != 0 ) *tmp=0;
}
}
// Stop browsing. We need an application
job->stop();
// delete job;
// job = 0L;
// GZIP
if ( aType && strcmp( aType, "application/x-gzip" ) == 0L )
{
job->stop();
tryURL += "#gzip:/";
openURL( tryURL );
}
// TAR
else if ( aType && strcmp( aType, "application/x-tar" ) == 0L )
{
// Is this tar file perhaps hosted in a gzipped file ?
KURL u( tryURL );
// ... then we already have a 'gzip' subprotocol
if ( u.hasSubProtocol() )
{
KURL u2( u.nestedURL() );
if ( strcmp( u2.protocol(), "gzip" ) == 0 )
{
// Remove the 'gzip' protocol. It will only slow down the process,
// since two subprotocols '#gzip:/#tar:/' are not very fast
// right now.
tryURL = u.parentURL();
}
}
job->stop();
tryURL += "#tar:/";
openURL( tryURL );
}
// No HTML ?
else if ( aType == 0L || strcmp( aType, "text/html" ) != 0L )
{
bool bdone = false;
// Do we know the mime type ?
if ( aType != 0L )
{
KMimeType *mime = KMimeType::findByName( aType );
// Try to run the URL if we know the mime type
if ( mime && mime->run( tryURL ) )
{
// We are a zombie now
prepareToDie();
bdone = true;
}
}
if ( !bdone )
{
// Ask the user what we should do
OpenWithDlg l( klocale->translate("Open With:"), "", 0L, true );
if ( l.exec() )
{
KMimeBind *bind = l.mimeBind();
if ( bind )
{
bind->runBinding( tryURL );
}
else
{
QString pattern = l.getText();
// The user did not something ?
if ( !pattern.isEmpty() )
{
QStrList list;
list.append( tryURL );
openWithOldApplication( pattern, list );
}
// We are a zombie now
prepareToDie();
}
}
}
}
// It is HTML
else
{
// Ok, lets open a new window
KfmGui *m = new KfmGui( 0L, 0L, tryURL );
if ( aCharset != 0 ) m->setCharset(aCharset);
if ( dlg )
{
delete dlg;
dlg = 0L;
}
m->show();
// We are a zombie now
prepareToDie();
}
delete typestr;
}