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#include "CalibrationFlowDialog.hpp"
#include "I18N.hpp"
#include "libslic3r/Model.hpp"
#include "libslic3r/Utils.hpp"
#include "libslic3r/AppConfig.hpp"
#include "Jobs/ArrangeJob.hpp"
#include "GLCanvas3D.hpp"
#include "GUI.hpp"
#include "GUI_ObjectList.hpp"
#include "Plater.hpp"
#include "Tab.hpp"
#include <wx/scrolwin.h>
#include <wx/display.h>
#include <wx/file.h>
#include "wxExtensions.hpp"
#if ENABLE_SCROLLABLE
static wxSize get_screen_size(wxWindow* window)
{
const auto idx = wxDisplay::GetFromWindow(window);
wxDisplay display(idx != wxNOT_FOUND ? idx : 0u);
return display.GetClientArea().GetSize();
}
#endif // ENABLE_SCROLLABLE
namespace Slic3r {
namespace GUI {
void CalibrationFlowDialog::create_buttons(wxStdDialogButtonSizer* buttons){
wxButton* bt = new wxButton(this, wxID_FILE1, _L("Generate 10% intervals around current value"));
bt->Bind(wxEVT_BUTTON, &CalibrationFlowDialog::create_geometry_10, this);
buttons->Add(bt);
bt = new wxButton(this, wxID_FILE2, _L("Generate 2% intervals below current value"));
bt->Bind(wxEVT_BUTTON, &CalibrationFlowDialog::create_geometry_2_5, this);
buttons->Add(bt);
}
void CalibrationFlowDialog::create_geometry(float start, float delta) {
Plater* plat = this->main_frame->plater();
Model& model = plat->model();
if (!plat->new_project(L("Flow calibration")))
return;
GLCanvas3D::set_warning_freeze(true);
bool autocenter = gui_app->app_config->get("autocenter") == "1";
if (autocenter) {
//disable auto-center for this calibration.
gui_app->app_config->set("autocenter", "0");
}
std::vector<size_t> objs_idx = plat->load_files(std::vector<std::string>{
(boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "filament_flow_test_cube.amf").string(),
(boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "filament_flow_test_cube.amf").string(),
(boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "filament_flow_test_cube.amf").string(),
(boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "filament_flow_test_cube.amf").string(),
(boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "filament_flow_test_cube.amf").string()}, true, false, false);
assert(objs_idx.size() == 5);
const DynamicPrintConfig* print_config = this->gui_app->get_tab(Preset::TYPE_FFF_PRINT)->get_config();
const DynamicPrintConfig* printerConfig = this->gui_app->get_tab(Preset::TYPE_PRINTER)->get_config();
/// --- scale ---
// model is created for a 0.4 nozzle, scale xy with nozzle size.
const ConfigOptionFloats* nozzle_diameter_config = printerConfig->option<ConfigOptionFloats>("nozzle_diameter");
assert(nozzle_diameter_config->values.size() > 0);
float nozzle_diameter = nozzle_diameter_config->values[0];
float xyScale = nozzle_diameter / 0.4;
//scale z to have 6 layers
const ConfigOptionFloatOrPercent* first_layer_height_setting = print_config->option<ConfigOptionFloatOrPercent>("first_layer_height");
double first_layer_height = first_layer_height_setting->get_abs_value(nozzle_diameter);
double layer_height = nozzle_diameter / 2.;
layer_height = check_z_step(layer_height, printerConfig->option<ConfigOptionFloat>("z_step")->value); // If z_step is not 0 the slicer will scale to the nearest multiple of z_step so account for that here
first_layer_height = std::max(first_layer_height, nozzle_diameter / 2.);
float zscale = first_layer_height + 5 * layer_height;
//do scaling
if (xyScale < 0.9 || 1.2 < xyScale) {
for (size_t i = 0; i < 5; i++)
model.objects[objs_idx[i]]->scale(xyScale, xyScale, zscale);
} else {
for (size_t i = 0; i < 5; i++)
model.objects[objs_idx[i]]->scale(1, 1, zscale);
}
//add sub-part after scale
float zscale_number = (first_layer_height + layer_height) / 0.4;
/* zshift is calculated using the following:
(zscale / 2) represents the midpoint of the filament_flow_test_cube
((first_layer_height + layer_height) / 2) represents the midpoint of our indicator tab (it is scaled to be 2 layers tall)
The 0.3 constant is the same as the delta calculated in add_part below, this should probably be calculated per the model object
*/
float zshift = -(zscale / 2) + ((first_layer_height + layer_height) / 2) + 0.3;
if (delta == 10.f && start == 80.f) {
add_part(model.objects[objs_idx[0]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m20.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
add_part(model.objects[objs_idx[1]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m10.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number });
add_part(model.objects[objs_idx[2]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "_0.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number });
add_part(model.objects[objs_idx[3]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "p10.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number });
add_part(model.objects[objs_idx[4]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "p20.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number });
} else if (delta == 2.f && start == 92.f) {
add_part(model.objects[objs_idx[0]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m8.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
add_part(model.objects[objs_idx[1]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m6.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
add_part(model.objects[objs_idx[2]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m4.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
add_part(model.objects[objs_idx[3]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "m2.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
add_part(model.objects[objs_idx[4]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "_0.amf").string(), Vec3d{ 10 * xyScale,0,zshift }, Vec3d{ xyScale , xyScale, zscale_number});
}
for (size_t i = 0; i < 5; i++) {
add_part(model.objects[objs_idx[i]], (boost::filesystem::path(Slic3r::resources_dir()) / "calibration" / "filament_flow" / "O.amf").string(), Vec3d{ 0,0,zscale/2.f + 0.5 }, Vec3d{xyScale , xyScale, layer_height / 0.2});
}
/// --- translate ---;
bool has_to_arrange = false;
const ConfigOptionFloat* extruder_clearance_radius = print_config->option<ConfigOptionFloat>("extruder_clearance_radius");
const ConfigOptionPoints* bed_shape = printerConfig->option<ConfigOptionPoints>("bed_shape");
const double brim_width = nozzle_diameter * 3.5;
Vec2d bed_size = BoundingBoxf(bed_shape->values).size();
Vec2d bed_min = BoundingBoxf(bed_shape->values).min;
float offsetx = 3 + 20 * xyScale + extruder_clearance_radius->value + brim_width + (brim_width > extruder_clearance_radius->value ? brim_width - extruder_clearance_radius->value : 0);
float offsety = 3 + 20 * xyScale + extruder_clearance_radius->value + brim_width + (brim_width > extruder_clearance_radius->value ? brim_width - extruder_clearance_radius->value : 0);
model.objects[objs_idx[0]]->translate({ bed_min.x() + bed_size.x() / 2 - offsetx / 2, bed_min.y() + bed_size.y() / 2 - offsety, 0 });
model.objects[objs_idx[1]]->translate({ bed_min.x() + bed_size.x() / 2 - offsetx / 2, bed_min.y() + bed_size.y() / 2 , 0 });
model.objects[objs_idx[2]]->translate({ bed_min.x() + bed_size.x() / 2 - offsetx / 2, bed_min.y() + bed_size.y() / 2 + offsety, 0 });
model.objects[objs_idx[3]]->translate({ bed_min.x() + bed_size.x() / 2 + offsetx / 2, bed_min.y() + bed_size.y() / 2 - offsety, 0 });
model.objects[objs_idx[4]]->translate({ bed_min.x() + bed_size.x() / 2 + offsetx / 2, bed_min.y() + bed_size.y() / 2 + offsety, 0 });
// if not enough space, forget about complete_objects
if (bed_size.y() < offsety * 2 + 25 * xyScale + brim_width || bed_size.x() < offsetx + 25 * xyScale + brim_width)
has_to_arrange = true;
/// --- main config, please modify object config when possible ---
DynamicPrintConfig new_print_config = *print_config; //make a copy
new_print_config.set_key_value("complete_objects", new ConfigOptionBool(true));
//if skirt, use only one
if (print_config->option<ConfigOptionInt>("skirts")->getInt() > 0 && print_config->option<ConfigOptionInt>("skirt_height")->getInt() > 0) {
new_print_config.set_key_value("complete_objects_one_skirt", new ConfigOptionBool(true));
}
/// --- custom config ---
for (size_t i = 0; i < 5; i++) {
//brim to have some time to build up pressure in the nozzle
model.objects[objs_idx[i]]->config.set_key_value("brim_width", new ConfigOptionFloat(brim_width));
model.objects[objs_idx[i]]->config.set_key_value("external_perimeter_overlap", new ConfigOptionPercent(100));
model.objects[objs_idx[i]]->config.set_key_value("perimeter_overlap", new ConfigOptionPercent(100));
model.objects[objs_idx[i]]->config.set_key_value("brim_ears", new ConfigOptionBool(false));
model.objects[objs_idx[i]]->config.set_key_value("perimeters", new ConfigOptionInt(3));
model.objects[objs_idx[i]]->config.set_key_value("only_one_perimeter_top", new ConfigOptionBool(true));
model.objects[objs_idx[i]]->config.set_key_value("enforce_full_fill_volume", new ConfigOptionBool(true));
model.objects[objs_idx[i]]->config.set_key_value("bottom_solid_layers", new ConfigOptionInt(5));
model.objects[objs_idx[i]]->config.set_key_value("top_solid_layers", new ConfigOptionInt(100));
model.objects[objs_idx[i]]->config.set_key_value("thin_walls", new ConfigOptionBool(true));
model.objects[objs_idx[i]]->config.set_key_value("thin_walls_min_width", new ConfigOptionFloatOrPercent(50,true));
model.objects[objs_idx[i]]->config.set_key_value("gap_fill", new ConfigOptionBool(true));
model.objects[objs_idx[i]]->config.set_key_value("layer_height", new ConfigOptionFloat(layer_height));
model.objects[objs_idx[i]]->config.set_key_value("first_layer_height", new ConfigOptionFloatOrPercent(first_layer_height, false));
model.objects[objs_idx[i]]->config.set_key_value("external_infill_margin", new ConfigOptionFloatOrPercent(100, true));
model.objects[objs_idx[i]]->config.set_key_value("solid_fill_pattern", new ConfigOptionEnum<InfillPattern>(ipRectilinearWGapFill));
model.objects[objs_idx[i]]->config.set_key_value("top_fill_pattern", new ConfigOptionEnum<InfillPattern>(ipSmooth));
//disable ironing post-process
model.objects[objs_idx[i]]->config.set_key_value("ironing", new ConfigOptionBool(false));
//set extrusion mult: 80 90 100 110 120
model.objects[objs_idx[i]]->config.set_key_value("print_extrusion_multiplier", new ConfigOptionPercent(start + (float)i * delta));
}
//update plater
GLCanvas3D::set_warning_freeze(false);
this->gui_app->get_tab(Preset::TYPE_FFF_PRINT)->load_config(new_print_config);
plat->on_config_change(new_print_config);
plat->changed_objects(objs_idx);
this->gui_app->get_tab(Preset::TYPE_FFF_PRINT)->update_dirty();
//update everything, easier to code.
ObjectList* obj = this->gui_app->obj_list();
obj->update_after_undo_redo();
// arrange if needed, after new settings, to take them into account
if (has_to_arrange) {
//update print config (done at reslice but we need it here)
if (plat->printer_technology() == ptFFF)
plat->fff_print().apply(plat->model(), *plat->config());
std::shared_ptr<ProgressIndicatorStub> fake_statusbar = std::make_shared<ProgressIndicatorStub>();
ArrangeJob arranger(std::dynamic_pointer_cast<ProgressIndicator>(fake_statusbar), plat);
arranger.prepare_all();
arranger.process();
arranger.finalize();
}
plat->reslice();
if (autocenter) {
//re-enable auto-center after this calibration.
gui_app->app_config->set("autocenter", "1");
}
}
} // namespace GUI
} // namespace Slic3r
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