Files
OrcaSlicer/src/slic3r/GUI/DeviceCore/DevMapping.cpp
T
HanifKoh 23546e71ce Remove Unused Usings and the Includes Kept Only for Them (#16220)
151 using-directives, using-declarations, type aliases and namespace
aliases in source and test files that nothing refers to: the name is
never used, it duplicates a using already in scope, or the code sits
inside the namespace it names. Each one was removed on its own and the
file still compiled, both as it is and with every header-level using
taken away, so none of them was only redundant because a header leaks
the same name.

With the using gone, 28 #include lines and one forward declaration had
no other reference left in their file (boost/optional.hpp without any
optional, property_tree headers without any ptree) and go with it.

No header is touched.
2026-10-07 14:22:32 +08:00

415 lines
16 KiB
C++

#include "libslic3r/ProjectTask.hpp"
#include <cstdlib>
#include <cassert>
#include <cstdio>
#include <boost/log/trivial.hpp>
#include <limits>
#include <map>
#include <vector>
#include <string>
#include <utility>
#include <wx/colour.h>
#include <set>
#include "slic3r/GUI/DeviceCore/DevDefs.h"
#include "DevMapping.h"
#include "DevFilaSystem.h"
#include "DevUtil.h"
// TODO: remove this include
#include "slic3r/GUI/DeviceManager.hpp"
#include "slic3r/GUI/GuiColor.hpp"
namespace Slic3r
{
bool DevMappingUtil::is_valid_mapping_result(const MachineObject* obj, std::vector<FilamentInfo>& result, bool check_empty_slot)
{
if (result.empty()) return false;
for (int i = 0; i < result.size(); i++)
{
// invalid mapping result
if (result[i].tray_id < 0)
{
if (result[i].ams_id.empty() && result[i].slot_id.empty())
{
return false;
}
}
else
{
auto ams_item = obj->GetFilaSystem()->GetAmsById(result[i].ams_id);
if (ams_item == nullptr)
{
if ((result[i].ams_id != std::to_string(VIRTUAL_TRAY_MAIN_ID)) &&
(result[i].ams_id != std::to_string(VIRTUAL_TRAY_DEPUTY_ID)))
{
result[i].tray_id = -1;
return false;
}
}
else
{
if (check_empty_slot)
{
auto tray_item = ams_item->GetTrays().find(result[i].slot_id);
if (tray_item == ams_item->GetTrays().end())
{
result[i].tray_id = -1;
return false;
}
else
{
if (!tray_item->second->is_exists)
{
result[i].tray_id = -1;
return false;
}
}
}
}
}
}
return true;
}
// calc distance map
struct DisValue {
int tray_id;
float distance;
bool is_same_color = true;
bool is_type_match = true;
};
static void _parse_tray_info(int ams_id, int slot_id, DevAms::AmsType type, DevAmsTray tray, FilamentInfo& result)
{
result.color = tray.color;
result.type = tray.get_filament_type();
result.filament_id = tray.setting_id;
result.ctype = tray.ctype;
result.colors = tray.cols;
/*for new ams mapping*/
result.ams_id = std::to_string(ams_id);
result.slot_id = std::to_string(slot_id);
if (ams_id == VIRTUAL_TRAY_MAIN_ID || ams_id == VIRTUAL_TRAY_DEPUTY_ID)
{
result.tray_id = atoi(tray.id.c_str());
result.id = atoi(tray.id.c_str());
}
else
{
if (type == DevAms::N3S)
{
result.id = ams_id + slot_id;
}
else if (type == DevAms::AMS_LITE_MIXED)
{
result.id = AMS_LITE_MIXED_TRAY_INDEX_OFFSET + slot_id;
}
else
{
result.id = ams_id * 4 + slot_id;
}
}
}
int DevMappingUtil::ams_filament_mapping(const MachineObject* obj, const std::vector<FilamentInfo>& filaments, std::vector<FilamentInfo>& result, std::vector<bool> map_opt, std::vector<int> exclude_id, bool nozzle_has_ams_then_ignore_ext)
{
if (filaments.empty())
return -1;
/////////////////////////
// Step 1: collect filaments in machine
std::map<int, FilamentInfo> tray_filaments; // tray_index : tray_color
bool left_nozzle_has_ams = false, right_nozzle_has_ams = false;
const auto& ams_list = obj->GetFilaSystem()->GetAmsList();
for (auto ams = ams_list.begin(); ams != ams_list.end(); ams++)
{
std::string ams_id = ams->second->GetAmsId();
auto ams_type = ams->second->GetAmsType();
// GetAmsType() maps mixed -> AMS_LITE; recover the mixed type so N9 trays index at 24+slot.
if (ams_type == DevAms::AMS_LITE && ams->second->IsAmsLiteMixed())
{
ams_type = DevAms::AMS_LITE_MIXED;
}
for (auto tray = ams->second->GetTrays().begin(); tray != ams->second->GetTrays().end(); tray++)
{
int ams_id = atoi(ams->first.c_str());
int tray_id = atoi(tray->first.c_str());
int tray_index = 0;
if (ams_type == DevAms::AMS || ams_type == DevAms::AMS_LITE || ams_type == DevAms::N3F)
{
tray_index = ams_id * 4 + tray_id;
}
else if (ams_type == DevAms::AMS_LITE_MIXED)
{
tray_index = AMS_LITE_MIXED_TRAY_INDEX_OFFSET + tray_id;
}
else if (ams_type == DevAms::N3S)
{
tray_index = ams_id + tray_id;
}
else
{
assert(0);
}
// skip exclude id
for (int i = 0; i < exclude_id.size(); i++)
{
if (tray_index == exclude_id[i])
continue;
}
// push
FilamentInfo info;
if (tray->second->is_tray_info_ready())
{
_parse_tray_info(ams_id, tray_id, ams_type, *(tray->second), info);
}
//first: left,nozzle=1,map=1 second: right,nozzle=0,map=2
bool right_ams_valid = (ams->second->GetBindedExtruderSet().count(MAIN_EXTRUDER_ID) != 0) && map_opt[MappingOption::USE_RIGHT_AMS];
bool left_ams_valid = (ams->second->GetBindedExtruderSet().count(DEPUTY_EXTRUDER_ID) != 0) && map_opt[MappingOption::USE_LEFT_AMS];
if (right_ams_valid || left_ams_valid)
{
tray_filaments.emplace(std::make_pair(tray_index, info));
if (right_ams_valid)
{
right_nozzle_has_ams = true;
}
if (left_ams_valid)
{
left_nozzle_has_ams = true;
}
}
}
}
if (map_opt[MappingOption::USE_RIGHT_EXT] || map_opt[MappingOption::USE_LEFT_EXT])
{
for (auto tray : obj->vt_slot)
{
bool right_ext_valid = (tray.id == std::to_string(VIRTUAL_TRAY_MAIN_ID) && map_opt[MappingOption::USE_RIGHT_EXT]);
bool left_ext_valid = (tray.id == std::to_string(VIRTUAL_TRAY_DEPUTY_ID) && map_opt[MappingOption::USE_LEFT_EXT]);
if (right_ext_valid || left_ext_valid)
{
if (nozzle_has_ams_then_ignore_ext)
{
if (right_ext_valid && right_nozzle_has_ams)
{
continue;
}
if (left_ext_valid && left_nozzle_has_ams)
{
continue;
}
}
FilamentInfo info;
_parse_tray_info(atoi(tray.id.c_str()), 0, DevAms::EXT_SPOOL, tray, info);
tray_filaments.emplace(std::make_pair(info.tray_id, info));
}
}
}
/////////////////////////
// Step 2: collect the distances of filaments_in_slicing to filaments_in_machine
char buffer[256];
std::vector<std::vector<DisValue>> distance_map;
// print title
::sprintf(buffer, "F(id)");
std::string line = std::string(buffer);
for (auto tray = tray_filaments.begin(); tray != tray_filaments.end(); tray++)
{
::sprintf(buffer, " AMS%02d", tray->second.id + 1);
line += std::string(buffer);
}
BOOST_LOG_TRIVIAL(info) << "ams_mapping_distance:" << line;// Print the collected filaments
for (int i = 0; i < filaments.size(); i++)
{
std::vector<DisValue> rol;
::sprintf(buffer, "F(%02d)", filaments[i].id + 1);
line = std::string(buffer);
for (auto tray = tray_filaments.begin(); tray != tray_filaments.end(); tray++)
{
DisValue val;
val.tray_id = tray->second.id;
wxColour c = wxColour(filaments[i].color);
wxColour tray_c = DevAmsTray::decode_color(tray->second.color);
val.distance = GUI::calc_color_distance(c, tray_c);
if (filaments[i].type != tray->second.type)
{
val.distance = 999999;
val.is_type_match = false;
}
else
{
if (c.Alpha() != tray_c.Alpha())
val.distance = 999999;
val.is_type_match = true;
}
::sprintf(buffer, " %6.0f", val.distance);
line += std::string(buffer);
rol.push_back(val);
}
BOOST_LOG_TRIVIAL(info) << "ams_mapping_distance:" << line;
distance_map.push_back(rol);
}
/////////////////////////
// Step 3: do mapping algorithm
// setup the mapping result
for (int i = 0; i < filaments.size(); i++)
{
FilamentInfo info;
info.id = filaments[i].id;
info.tray_id = -1;
info.type = filaments[i].type;
info.filament_id = filaments[i].filament_id;
result.push_back(info);
}
// traverse the mapping
std::set<int> picked_src;
std::set<int> picked_tar;
for (int k = 0; k < distance_map.size(); k++)
{
float min_val = std::numeric_limits<float>::max();
int picked_src_idx = -1;
int picked_tar_idx = -1;
for (int i = 0; i < distance_map.size(); i++)
{
if (picked_src.find(i) != picked_src.end())
continue;
// try to mapping to different tray
for (int j = 0; j < distance_map[i].size(); j++)
{
if (picked_tar.find(j) != picked_tar.end())
{
if (distance_map[i][j].is_same_color
&& distance_map[i][j].is_type_match
&& distance_map[i][j].distance < (float)0.0001)
{
min_val = distance_map[i][j].distance;
picked_src_idx = i;
picked_tar_idx = j;
tray_filaments[picked_tar_idx].distance = min_val;
}
continue;
}
if (distance_map[i][j].is_same_color
&& distance_map[i][j].is_type_match)
{
if (min_val > distance_map[i][j].distance)
{
min_val = distance_map[i][j].distance;
picked_src_idx = i;
picked_tar_idx = j;
tray_filaments[picked_tar_idx].distance = min_val;
}
else if (min_val == distance_map[i][j].distance && filaments[picked_src_idx].filament_id != tray_filaments[picked_tar_idx].filament_id && filaments[i].filament_id == tray_filaments[j].filament_id)
{
picked_src_idx = i;
picked_tar_idx = j;
}
}
}
// take a retry to mapping to used tray
if (picked_src_idx < 0 || picked_tar_idx < 0)
{
for (int j = 0; j < distance_map[i].size(); j++)
{
if (distance_map[i][j].is_same_color && distance_map[i][j].is_type_match)
{
if (min_val > distance_map[i][j].distance)
{
min_val = distance_map[i][j].distance;
picked_src_idx = i;
picked_tar_idx = j;
tray_filaments[picked_tar_idx].distance = min_val;
}
else if (min_val == distance_map[i][j].distance && filaments[picked_src_idx].filament_id != tray_filaments[picked_tar_idx].filament_id && filaments[i].filament_id == tray_filaments[j].filament_id)
{
picked_src_idx = i;
picked_tar_idx = j;
}
}
}
}
}
if (picked_src_idx >= 0 && picked_tar_idx >= 0)
{
auto tray = tray_filaments.find(distance_map[k][picked_tar_idx].tray_id);
if (tray != tray_filaments.end())
{
result[picked_src_idx].tray_id = tray->first;
result[picked_src_idx].color = tray->second.color;
result[picked_src_idx].type = tray->second.type;
result[picked_src_idx].distance = tray->second.distance;
result[picked_src_idx].filament_id = tray->second.filament_id;
result[picked_src_idx].ctype = tray->second.ctype;
result[picked_src_idx].colors = tray->second.colors;
/*for new ams mapping*/
result[picked_src_idx].ams_id = tray->second.ams_id;
result[picked_src_idx].slot_id = tray->second.slot_id;
}
::sprintf(buffer, "ams_mapping, picked F(%02d) AMS(%02d), distance=%6.0f", picked_src_idx + 1, picked_tar_idx + 1,
distance_map[picked_src_idx][picked_tar_idx].distance);
BOOST_LOG_TRIVIAL(info) << std::string(buffer);
picked_src.insert(picked_src_idx);
picked_tar.insert(picked_tar_idx);
}
}
// Orca: special cases that no AMS available, we select ext slot automatically because we don't have other choice anyway
if (tray_filaments.size() == 1 && devPrinterUtil::IsVirtualSlot(tray_filaments.begin()->first)) {
auto ext_tray = tray_filaments.begin();
for (auto & r : result) {
if (r.tray_id < 0) {
r.tray_id = ext_tray->first;
r.color = ext_tray->second.color;
r.type = ext_tray->second.type;
r.distance = ext_tray->second.distance;
r.filament_id = ext_tray->second.filament_id;
r.ctype = ext_tray->second.ctype;
r.colors = ext_tray->second.colors;
/*for new ams mapping*/
r.ams_id = ext_tray->second.ams_id;
r.slot_id = ext_tray->second.slot_id;
}
}
}
//check ams mapping result
if (DevMappingUtil::is_valid_mapping_result(obj, result, true))
{
return 0;
}
/* for (auto it = result.begin(); it != result.end(); it++) {//This code has never been effective before 2025.03.18
if (it->distance >= 6000) {
it->tray_id = -1;
}
}*/
return 0;
}
}