bool PyVisInterface::PathIntegralSingleStep(NumberList& output) {
Timer slowness("python time");
if(!g_PyVis || !g_PyVis->scriptStep)
return false;
PyObject* result = PyObject_CallObject(g_PyVis->scriptStep, /* args */ NULL);
ScopePyDecRef clearResult(result);
if(!result || !PyList_Check(result) || PyList_Size(result) <= 0) {
printf("Python script step didn't return a valid list\n");
return false;
}
PyObject* list = PyList_GetItem(result, 0);
return g_PyVis->CollectNumberList(list, output);
}
QVector<double> CrustalModel::calculate(const QVector<double> &freq) const
{
QVector<double> amp(freq.size());
// Slowness (inverse of the crustal velocity
QVector<double> slowness(m_velocity.size());
for (int i = 0; i < slowness.size(); ++i) {
slowness[i] = 1./m_velocity.at(i);
}
// average slowness over a depth range (1/velocity)
QVector<double> avgSlow(freq.size(), slowness.first());
// Frequency dependent depth
QVector<double> depth_f(freq.size(), 0.);
for (int i = 0; i < freq.size(); ++i) {
double error = 0;
int count = 0;
do {
++count;
depth_f[i] = 1. / (4 * freq.at(i) * avgSlow.at(i));
const double oldValue = avgSlow.at(i);
avgSlow[i] = averageValue(m_thickness, slowness, depth_f.at(i));
error = fabs((oldValue - avgSlow.at(i)) / avgSlow.at(i));
} while (error > 0.005 && count < 10);
}
for (int i = 0; i < freq.size(); ++i) {
// Average density for the depth range
const double avgDensity = averageValue(m_thickness, m_density, depth_f.at(i));
amp[i] = sqrt((m_velocity.at(i) * m_density.at(i)) / (avgDensity / avgSlow.at(i)));
}
return amp;
}