void EditorFileSystem::reimport_files(const Vector<String> &p_files) {
importing = true;
EditorProgress pr("reimport", TTR("(Re)Importing Assets"), p_files.size());
Vector<ImportFile> files;
for (int i = 0; i < p_files.size(); i++) {
ImportFile ifile;
ifile.path = p_files[i];
ifile.order = ResourceFormatImporter::get_singleton()->get_import_order(p_files[i]);
files.push_back(ifile);
}
files.sort();
for (int i = 0; i < files.size(); i++) {
pr.step(files[i].path.get_file(), i);
_reimport_file(files[i].path);
}
_save_filesystem_cache();
importing = false;
if (!is_scanning()) {
emit_signal("filesystem_changed");
}
emit_signal("resources_reimported", p_files);
}
void EditorFileSystem::reimport_files(const Vector<String> &p_files) {
importing = true;
EditorProgress pr("reimport", TTR("(Re)Importing Assets"), p_files.size());
for (int i = 0; i < p_files.size(); i++) {
pr.step(p_files[i].get_file(), i);
_reimport_file(p_files[i]);
}
_save_filesystem_cache();
importing = false;
if (!is_scanning()) {
emit_signal("filesystem_changed");
}
}
bool is_convergent_beam_wave() const
{
return is_scanning() || is_CBED_CBEI() || (is_EWFS_EWRS() && ew_fr.convergent_beam) || (is_EWSFS_EWSRS() && ew_fr.convergent_beam);
}
void validate_parameters()
{
cpu_nthread = max(1, cpu_nthread);
gpu_nstream = max(1, gpu_nstream);
nstream = (is_host())?cpu_nthread:gpu_nstream;
if(!is_float() && !is_double())
precision = eP_float;
if(!is_host() && !is_device())
device = e_host;
if(!is_gpu_available())
{
device = e_host;
}
fp_seed = max(0, fp_seed);
fp_nconf = (!is_frozen_phonon())?1:max(1, fp_nconf);
fp_iconf_0 = (!is_frozen_phonon() || !fp_single_conf)?1:fp_single_conf;
tm_nrot = max(1, tm_nrot);
tm_irot = max(0, tm_irot);
tm_nrot = max(1, tm_nrot);
norm_Pos_3d(tm_u0);
if(tm_rot_point_type == eRPT_geometric_center)
{
tm_p0 = Pos_3d<T>(atoms.x_mean, atoms.y_mean, atoms.z_mean);
}
if(is_tomography())
{
thickness_type = eTT_Whole_Specimen;
if(potential_slicing == ePS_Planes)
{
potential_slicing = ePS_dz_Proj;
}
}
islice = max(0, islice);
gpu_device = max(0, gpu_device);
if(isZero(Vrl))
{
Vrl = c_Vrl;
}
if(isZero(nR))
{
nR = c_nR;
}
dp_Shift = (is_PED())?true:false;
if(!is_scanning())
{
scanning.set_default();
}
scanning.set_grid();
lens.set_input_data(E_0, grid);
det_cir.set_input_data(E_0);
theta = set_incident_angle(theta);
nrot = max(1, nrot);
if(!is_PED_HCI())
{
nrot = 1;
}
//Set beam type
if(is_user_define_wave())
{
beam_type = eBT_User_Define;
}
else if(is_convergent_beam_wave())
{
beam_type = eBT_Convergent;
if(is_CBED_CBEI())
{
set_beam_position(cbe_fr.x0, cbe_fr.y0);
}
else if(is_EWFS_EWRS())
{
set_beam_position(ew_fr.x0, ew_fr.y0);
}
}
else if(is_plane_wave())
{
beam_type = eBT_Plane_Wave;
}
if(is_EELS() || is_EFTEM())
{
coherent_contribution = false;
interaction_model = multem::eESIM_Multislice;
}
if(is_EWFS_EWRS())
{
coherent_contribution = true;
}
slice_storage = false;
if(is_PED_HCI() || is_EELS_EFTEM()|| is_ISTEM() ||(is_STEM() && !coherent_contribution))
{
slice_storage = true;
}
if(!is_multislice())
{
islice = 0;
fp_dim.z = false;
potential_slicing = ePS_Planes;
thickness_type = eTT_Through_Thickness;
slice_storage = slice_storage || !is_whole_specimen();
}
if(is_subslicing())
{
thickness_type = eTT_Whole_Specimen;
}
if(is_whole_specimen() || thickness.empty())
{
thickness_type = eTT_Whole_Specimen;
thickness.resize(1);
thickness[0] = atoms.z_max;
}
else if(is_through_thickness())
{
// for amorphous specimen it has to be modified
thickness_type = eTT_Through_Thickness;
std::sort(thickness.begin(), thickness.end());
fp_dim.z = false;
atoms.Sort_by_z();
atoms.get_z_layer();
multem::match_vectors(atoms.z_layer.begin(), atoms.z_layer.end(), thickness);
}
else if(is_through_slices())
{
std::sort(thickness.begin(), thickness.end());
atoms.Sort_by_z();
atoms.get_z_layer();
Vector<T, e_host> z_slice;
atoms.get_z_slice(potential_slicing, grid.dz, atoms, z_slice);
vector<T> z_slicet;
z_slicet.assign(z_slice.begin(), z_slice.end());
multem::match_vectors(z_slice.begin()+1, z_slice.end(), thickness);
}
}
