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ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE -> Refactoring of SlicingAdaptive to account for volumes' transformation

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This commit is contained in:
Enrico Turri 2019-11-13 13:53:02 +01:00
parent b77ba32bb2
commit 0001ce3dab
5 changed files with 104 additions and 41 deletions
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24
src/libslic3r/Slicing.cpp
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@ -224,24 +224,38 @@ std::vector<coordf_t> layer_height_profile_from_ranges(
// Based on the work of @platsch
// Fill layer_height_profile by heights ensuring a prescribed maximum cusp height.
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
std::vector<coordf_t> layer_height_profile_adaptive(
const SlicingParameters& slicing_params,
const ModelObject& object)
#else
std::vector<coordf_t> layer_height_profile_adaptive(
const SlicingParameters &slicing_params,
const t_layer_config_ranges & /* layer_config_ranges */,
const ModelVolumePtrs &volumes)
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
{
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
// 1) Initialize the SlicingAdaptive class with the object meshes.
SlicingAdaptive as;
as.set_slicing_parameters(slicing_params);
for (const ModelVolume *volume : volumes)
as.set_object(object);
#else
// 1) Initialize the SlicingAdaptive class with the object meshes.
SlicingAdaptive as;
as.set_slicing_parameters(slicing_params);
for (const ModelVolume* volume : volumes)
if (volume->is_model_part())
as.add_mesh(&volume->mesh());
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
as.prepare();
// 2) Generate layers using the algorithm of @platsch
// loop until we have at least one layer and the max slice_z reaches the object height
//FIXME make it configurable
// Cusp value: A maximum allowed distance from a corner of a rectangular extrusion to a chrodal line, in mm.
const coordf_t cusp_value = 0.2; // $self->config->get_value('cusp_value');
const double cusp_value = 0.2; // $self->config->get_value('cusp_value');
std::vector<coordf_t> layer_height_profile;
layer_height_profile.push_back(0.);
@ -250,14 +264,14 @@ std::vector<coordf_t> layer_height_profile_adaptive(
layer_height_profile.push_back(slicing_params.first_object_layer_height);
layer_height_profile.push_back(slicing_params.first_object_layer_height);
}
coordf_t slice_z = slicing_params.first_object_layer_height;
coordf_t height = slicing_params.first_object_layer_height;
double slice_z = slicing_params.first_object_layer_height;
double height = slicing_params.first_object_layer_height;
int current_facet = 0;
while ((slice_z - height) <= slicing_params.object_print_z_height()) {
height = 999;
// Slic3r::debugf "\n Slice layer: %d\n", $id;
// determine next layer height
coordf_t cusp_height = as.cusp_height(slice_z, cusp_value, current_facet);
double cusp_height = as.cusp_height((float)slice_z, (float)cusp_value, current_facet);
// check for horizontal features and object size
/*
if($self->config->get_value('match_horizontal_surfaces')) {

11
src/libslic3r/Slicing.hpp
View file

@ -18,8 +18,12 @@ namespace Slic3r
class PrintConfig;
class PrintObjectConfig;
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
class ModelObject;
#else
class ModelVolume;
typedef std::vector<ModelVolume*> ModelVolumePtrs;
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
// Parameters to guide object slicing and support generation.
// The slicing parameters account for a raft and whether the 1st object layer is printed with a normal or a bridging flow
@ -138,11 +142,16 @@ extern std::vector<coordf_t> layer_height_profile_from_ranges(
const SlicingParameters &slicing_params,
const t_layer_config_ranges &layer_config_ranges);
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
extern std::vector<coordf_t> layer_height_profile_adaptive(
const SlicingParameters& slicing_params,
const ModelObject& object);
#else
extern std::vector<coordf_t> layer_height_profile_adaptive(
const SlicingParameters &slicing_params,
const t_layer_config_ranges &layer_config_ranges,
const ModelVolumePtrs &volumes);
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
enum LayerHeightEditActionType : unsigned int {
LAYER_HEIGHT_EDIT_ACTION_INCREASE = 0,

66
src/libslic3r/SlicingAdaptive.cpp
View file

@ -1,16 +1,22 @@
#include "libslic3r.h"
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
#include "Model.hpp"
#else
#include "TriangleMesh.hpp"
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
#include "SlicingAdaptive.hpp"
namespace Slic3r
{
#if !ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void SlicingAdaptive::clear()
{
m_meshes.clear();
m_meshes.clear();
m_faces.clear();
m_face_normal_z.clear();
}
#endif // !ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
std::pair<float, float> face_z_span(const stl_facet *f)
{
@ -21,21 +27,38 @@ std::pair<float, float> face_z_span(const stl_facet *f)
void SlicingAdaptive::prepare()
{
// 1) Collect faces of all meshes.
int nfaces_total = 0;
for (std::vector<const TriangleMesh*>::const_iterator it_mesh = m_meshes.begin(); it_mesh != m_meshes.end(); ++ it_mesh)
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
if (m_object == nullptr)
return;
m_faces.clear();
m_face_normal_z.clear();
m_mesh = m_object->raw_mesh();
const ModelInstance* first_instance = m_object->instances.front();
m_mesh.transform(first_instance->get_matrix(), first_instance->is_left_handed());
// 1) Collect faces from mesh.
m_faces.reserve(m_mesh.stl.stats.number_of_facets);
for (const stl_facet& face : m_mesh.stl.facet_start)
m_faces.emplace_back(&face);
#else
// 1) Collect faces of all meshes.
int nfaces_total = 0;
for (std::vector<const TriangleMesh*>::const_iterator it_mesh = m_meshes.begin(); it_mesh != m_meshes.end(); ++ it_mesh)
nfaces_total += (*it_mesh)->stl.stats.number_of_facets;
m_faces.reserve(nfaces_total);
for (std::vector<const TriangleMesh*>::const_iterator it_mesh = m_meshes.begin(); it_mesh != m_meshes.end(); ++ it_mesh)
for (const stl_facet &face : (*it_mesh)->stl.facet_start)
m_faces.emplace_back(&face);
m_faces.reserve(nfaces_total);
for (std::vector<const TriangleMesh*>::const_iterator it_mesh = m_meshes.begin(); it_mesh != m_meshes.end(); ++ it_mesh)
for (const stl_facet& face : (*it_mesh)->stl.facet_start)
m_faces.emplace_back(&face);
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
// 2) Sort faces lexicographically by their Z span.
std::sort(m_faces.begin(), m_faces.end(), [](const stl_facet *f1, const stl_facet *f2) {
std::pair<float, float> span1 = face_z_span(f1);
std::pair<float, float> span1 = face_z_span(f1);
std::pair<float, float> span2 = face_z_span(f2);
return span1 < span2;
});
return span1 < span2;
});
// 3) Generate Z components of the facet normals.
m_face_normal_z.assign(m_faces.size(), 0.f);
@ -45,14 +68,14 @@ void SlicingAdaptive::prepare()
float SlicingAdaptive::cusp_height(float z, float cusp_value, int &current_facet)
{
float height = m_slicing_params.max_layer_height;
float height = (float)m_slicing_params.max_layer_height;
bool first_hit = false;
// find all facets intersecting the slice-layer
int ordered_id = current_facet;
for (; ordered_id < int(m_faces.size()); ++ ordered_id) {
std::pair<float, float> zspan = face_z_span(m_faces[ordered_id]);
// facet's minimum is higher than slice_z -> end loop
std::pair<float, float> zspan = face_z_span(m_faces[ordered_id]);
// facet's minimum is higher than slice_z -> end loop
if (zspan.first >= z)
break;
// facet's maximum is higher than slice_z -> store the first event for next cusp_height call to begin at this point
@ -77,8 +100,8 @@ float SlicingAdaptive::cusp_height(float z, float cusp_value, int &current_facet
// check for sloped facets inside the determined layer and correct height if necessary
if (height > m_slicing_params.min_layer_height) {
for (; ordered_id < int(m_faces.size()); ++ ordered_id) {
std::pair<float, float> zspan = face_z_span(m_faces[ordered_id]);
// facet's minimum is higher than slice_z + height -> end loop
std::pair<float, float> zspan = face_z_span(m_faces[ordered_id]);
// facet's minimum is higher than slice_z + height -> end loop
if (zspan.first >= z + height)
break;
@ -122,19 +145,18 @@ float SlicingAdaptive::cusp_height(float z, float cusp_value, int &current_facet
float SlicingAdaptive::horizontal_facet_distance(float z)
{
for (size_t i = 0; i < m_faces.size(); ++ i) {
std::pair<float, float> zspan = face_z_span(m_faces[i]);
// facet's minimum is higher than max forward distance -> end loop
std::pair<float, float> zspan = face_z_span(m_faces[i]);
// facet's minimum is higher than max forward distance -> end loop
if (zspan.first > z + m_slicing_params.max_layer_height)
break;
// min_z == max_z -> horizontal facet
if (zspan.first > z && zspan.first == zspan.second)
if ((zspan.first > z) && (zspan.first == zspan.second))
return zspan.first - z;
}
// objects maximum?
return (z + m_slicing_params.max_layer_height > m_slicing_params.object_print_z_height()) ?
std::max<float>(m_slicing_params.object_print_z_height() - z, 0.f) :
m_slicing_params.max_layer_height;
return (z + (float)m_slicing_params.max_layer_height > (float)m_slicing_params.object_print_z_height()) ?
std::max((float)m_slicing_params.object_print_z_height() - z, 0.f) : (float)m_slicing_params.max_layer_height;
}
}; // namespace Slic3r

32
src/libslic3r/SlicingAdaptive.hpp
View file

@ -5,29 +5,47 @@
#include "Slicing.hpp"
#include "admesh/stl.h"
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
#include "TriangleMesh.hpp"
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
namespace Slic3r
{
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
class ModelVolume;
#else
class TriangleMesh;
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
class SlicingAdaptive
{
public:
void clear();
void set_slicing_parameters(SlicingParameters params) { m_slicing_params = params; }
void add_mesh(const TriangleMesh *mesh) { m_meshes.push_back(mesh); }
void prepare();
#if !ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void clear();
#endif // !ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void set_slicing_parameters(SlicingParameters params) { m_slicing_params = params; }
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void set_object(const ModelObject& object) { m_object = &object; }
#else
void add_mesh(const TriangleMesh* mesh) { m_meshes.push_back(mesh); }
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void prepare();
float cusp_height(float z, float cusp_value, int &current_facet);
float horizontal_facet_distance(float z);
protected:
SlicingParameters m_slicing_params;
std::vector<const TriangleMesh*> m_meshes;
// Collected faces of all meshes, sorted by raising Z of the bottom most face.
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
const ModelObject* m_object;
TriangleMesh m_mesh;
#else
std::vector<const TriangleMesh*> m_meshes;
#endif // ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
// Collected faces of all meshes, sorted by raising Z of the bottom most face.
std::vector<const stl_facet*> m_faces;
// Z component of face normals, normalized.
// Z component of face normals, normalized.
std::vector<float> m_face_normal_z;
};

12
src/slic3r/GUI/GLCanvas3D.cpp
View file

@ -266,13 +266,13 @@ void GLCanvas3D::LayersEditing::render_overlay(const GLCanvas3D& canvas) const
imgui.text(_(L("Increase/decrease edit area")));
ImGui::Separator();
if (imgui.button(_(L("Reset"))))
wxPostEvent((wxEvtHandler*)canvas.get_wxglcanvas(), SimpleEvent(EVT_GLCANVAS_RESET_LAYER_HEIGHT_PROFILE));
ImGui::SameLine();
if (imgui.button(_(L("Adaptive"))))
wxPostEvent((wxEvtHandler*)canvas.get_wxglcanvas(), SimpleEvent(EVT_GLCANVAS_ADAPTIVE_LAYER_HEIGHT_PROFILE));
ImGui::SameLine();
if (imgui.button(_(L("Reset"))))
wxPostEvent((wxEvtHandler*)canvas.get_wxglcanvas(), SimpleEvent(EVT_GLCANVAS_RESET_LAYER_HEIGHT_PROFILE));
imgui.end();
ImGui::PopStyleVar();
@ -577,8 +577,8 @@ void GLCanvas3D::LayersEditing::reset_layer_height_profile(GLCanvas3D& canvas)
#if ENABLE_ADAPTIVE_LAYER_HEIGHT_PROFILE
void GLCanvas3D::LayersEditing::adaptive_layer_height_profile(GLCanvas3D& canvas)
{
const_cast<ModelObject*>(m_model_object)->layer_height_profile.clear();
m_layer_height_profile = layer_height_profile_adaptive(*m_slicing_parameters, m_model_object->layer_config_ranges, m_model_object->volumes);
m_layer_height_profile = layer_height_profile_adaptive(*m_slicing_parameters, *m_model_object);
const_cast<ModelObject*>(m_model_object)->layer_height_profile = m_layer_height_profile;
m_layers_texture.valid = false;
canvas.post_event(SimpleEvent(EVT_GLCANVAS_SCHEDULE_BACKGROUND_PROCESS));
}