Files
speckle-cpp-connectors/SpeckleLib/Speckle/Record/Element/ModelElement.cpp
T
Ralph Wessel 218a67d92d Added collection of conversion outcomes during send
Added progress display in UI (with ability to cancel)
2024-11-07 11:37:54 +00:00

446 lines
16 KiB
C++

#include "Speckle/Record/Element/ModelElement.h"
#include "Active/Serialise/Package/Wrapper/ContainerWrap.h"
#include "Speckle/Environment/Addon.h"
#include "Speckle/Primitive/Mesh/Mesh.h"
#include "Speckle/Record/Element/Memo.h"
#include "Speckle/Record/Property/Wrapper/PropertiedWrapper.h"
#include "Speckle/SpeckleResource.h"
#include "Speckle/Utility/BIMMemory.h"
#ifdef ARCHICAD
#include <exp.h>
#include <AttributeIndex.hpp>
#include <ConvexPolygon.hpp>
#include <Model.hpp>
#include <ModelElement.hpp>
#include <ModelMaterial.hpp>
#include <ModelMeshBody.hpp>
#include <Sight.hpp>
#endif
using namespace active::measure;
using namespace active::serialise;
using namespace speckle::database;
using namespace speckle::environment;
using namespace speckle::record::attribute;
using namespace speckle::record::element;
using namespace speckle::record::element::quants;
using namespace speckle::record::property;
using namespace speckle::utility;
#include <array>
#include <memory>
namespace speckle::record::element {
class ModelElement::Data {
public:
friend class ModelElement;
#ifdef ARCHICAD
Data() {}
Data(const Data& source) : m_cache{std::make_unique<ModelElement::Body>(*source.m_cache)} {}
#endif
private:
std::unique_ptr<ModelElement::Body> m_cache;
};
/*!
Cache for materials in Archicad
NB: This has been implemented because looking up materials through the API is very slow (can easily triple processing time)
This can be eliminated in future if this problem is remedied
*/
class ModelElement::FinishCache : public std::unordered_map<Guid, Finish> {
public:
using base = std::unordered_map<Guid, Finish>;
using base::base;
FinishCache() : base{} { activeSession = addon()->getSession(); }
///The active session value when the cache was created - enables the content to be reset between sessions
uint32_t activeSession = 0;
/*!
Validate the cache (ensure matches the active session)
@return True if the content is valid
*/
bool validate() {
if (activeSession != addon()->getSession()) {
m_finishCache.reset();
return false;
}
return true;
}
};
///Allocation for the ModelElement finishes cache (used because repeated API access is very slow)
std::unique_ptr<ModelElement::FinishCache> ModelElement::m_finishCache;
}
namespace {
///Serialisation fields
enum FieldIndex {
bodyID,
materialQuantsID,
propertyID,
};
///Serialisation field IDs
static std::array fieldID = {
Identity{"displayValue"},
Identity{"materialQuantities"},
Identity{"properties"},
};
#ifdef ARCHICAD
/*!
Collect the IDs of individual parts from an assembly (e.g. stair, curtain wall)
@param parts A pointer to the assembly parts
@param partIDs The assembly part IDs
*/
template<typename T>
void getPartIDs(T* parts, std::set<API_Guid>& partIDs) {
GSSize nSubElements = BMGetPtrSize(reinterpret_cast<GSPtr>(parts)) / sizeof(T);
for (Int32 idx = 0; idx < nSubElements; ++idx)
partIDs.insert(parts[idx].head.guid);
}
/*!
Measure material quantities from the composite materials of a specified element
@param guid The ID of the element to measure
@param elementQuantity Quantities extracted from the target element (out)
@param extendedQuantity Optional extended quantities calculated for some element types
@param quantityMask Mask to determine which quantities are required (minimise calculation time)
*/
void measureQuantities(const API_Guid& guid, API_ElementQuantity& elementQuantity,
API_Quantities& extendedQuantity, const API_QuantitiesMask& quantityMask) {
extendedQuantity.elements = &elementQuantity;
GS::Array<API_ElemPartQuantity> elementPartQuantities;
API_QuantityPar quantityParameters{};
quantityParameters.minOpeningSize = Eps;
ACAPI_Element_GetQuantities(guid, &quantityParameters, &extendedQuantity, &quantityMask);
} //measureQuantities
/*!
Collect the IDs of individual parts from an element (e.g. stair, curtain wall)
@param elemId The element to collect part IDs from
@param typeID The element type identifier
@param memo The element memo data
*/
std::set<API_Guid> collectPartIDs(const API_Guid& elemId, API_ElemTypeID typeID, const Memo& memo) {
std::set<API_Guid> partIDs{};
partIDs.insert(elemId);
if (!memo)
return partIDs;
switch (typeID) {
case API_StairID:
getPartIDs(memo.root()->stairRisers, partIDs);
getPartIDs(memo.root()->stairTreads, partIDs);
getPartIDs(memo.root()->stairStructures, partIDs);
break;
case API_RailingID:
getPartIDs(memo.root()->railingSegments, partIDs);
getPartIDs(memo.root()->railingPatterns, partIDs);
getPartIDs(memo.root()->railingRails, partIDs);
getPartIDs(memo.root()->railingHandrails, partIDs);
getPartIDs(memo.root()->railingToprails, partIDs);
getPartIDs(memo.root()->railingBalusterSets, partIDs);
getPartIDs(memo.root()->railingBalusters, partIDs);
getPartIDs(memo.root()->railingPanels, partIDs);
getPartIDs(memo.root()->railingInnerPosts, partIDs);
getPartIDs(memo.root()->railingNodes, partIDs);
getPartIDs(memo.root()->railingRailConnections, partIDs);
getPartIDs(memo.root()->railingHandrailConnections, partIDs);
getPartIDs(memo.root()->railingToprailConnections, partIDs);
getPartIDs(memo.root()->railingPosts, partIDs);
getPartIDs(memo.root()->railingRailEnds, partIDs);
getPartIDs(memo.root()->railingHandrailEnds, partIDs);
getPartIDs(memo.root()->railingToprailEnds, partIDs);
break;
case API_CurtainWallID:
getPartIDs(memo.root()->cWallSegments, partIDs);
getPartIDs(memo.root()->cWallFrames, partIDs);
getPartIDs(memo.root()->cWallPanels, partIDs);
getPartIDs(memo.root()->cWallJunctions, partIDs);
getPartIDs(memo.root()->cWallAccessories, partIDs);
break;
default:
break;
}
return partIDs;
}
#endif
}
/*--------------------------------------------------------------------
Default constructor
--------------------------------------------------------------------*/
ModelElement::ModelElement() {
} //ModelElement::ModelElement
/*--------------------------------------------------------------------
Constructor
ID: The record ID
tableID: The parent table ID
unit: The record unit type
--------------------------------------------------------------------*/
ModelElement::ModelElement(const Guid& ID, const Guid& tableID, std::optional<LengthType> unit) : Element{ID, tableID, unit} {
} //ModelElement::ModelElement
/*--------------------------------------------------------------------
Copy constructor
source: The object to copy
--------------------------------------------------------------------*/
ModelElement::ModelElement(const ModelElement& source) : base{source}, Classified{source}, Propertied{source} {
m_data = source.m_data ? std::make_unique<Data>(*m_data) : nullptr;
} //ModelElement::ModelElement
/*--------------------------------------------------------------------
Destructor
--------------------------------------------------------------------*/
ModelElement::~ModelElement() {}
/*--------------------------------------------------------------------
Get mesh finish from the cache
finishID: The finish ID
return: A pointer to the requested material (nullptr on failure)
--------------------------------------------------------------------*/
Finish* ModelElement::getFinish(const Guid& finishID) {
if (!m_finishCache || !m_finishCache->validate())
return nullptr;
if (auto iter = m_finishCache->find(finishID); iter != m_finishCache->end())
return &iter->second;
return nullptr;
} //ModelElement::getFinish
/*--------------------------------------------------------------------
Add a mesh finish to the cache
finishID: The finish ID
finish: The mesh finish
--------------------------------------------------------------------*/
Finish* ModelElement::cacheFinish(const Guid& finishID, const Finish& finish) {
if (!m_finishCache || !m_finishCache->validate())
m_finishCache = std::make_unique<ModelElement::FinishCache>();
return &m_finishCache->insert({finishID, finish}).first->second;
} //ModelElement::cacheFinish
/*--------------------------------------------------------------------
Reset the Archicad material cache
--------------------------------------------------------------------*/
void ModelElement::resetCache() {
m_finishCache.reset();
} //ModelElement::resetCache
/*--------------------------------------------------------------------
Get material quantities measured from this element
return: An list of material quantities
--------------------------------------------------------------------*/
MaterialQuantityList ModelElement::getMaterialQuantities() const {
using enum Composition;
MaterialQuantityList result;
switch (getComposition()) {
case unordered: {
//Get the material and spatial measurements
auto material = getMaterial();
if (!material)
return result;
auto spatialMeasure = getSpatialMeasure();
if (!spatialMeasure)
return result;
//Create a material quantity from the quantity takeoff
result.push_back({material->getBIMID(), spatialMeasure.area, spatialMeasure.volume});
break;
}
case skinned: {
#ifdef ARCHICAD
API_ElementQuantity elementQuantity{};
API_Quantities extendedQuantity{};
GS::Array<API_CompositeQuantity> compositeQuantity{};
extendedQuantity.composites = &compositeQuantity;
API_QuantitiesMask quantityMask{};
//Set the appropriate masks for composite material volume/area quantity takeoffs
BIMMemory::setMask(&quantityMask.composites.buildMatIndices);
BIMMemory::setMask(&quantityMask.composites.volumes);
BIMMemory::setMask(&quantityMask.composites.projectedArea);
measureQuantities(getHead().guid, elementQuantity, extendedQuantity, quantityMask);
//Create material quantities from the quantity takeoff (one oer skin in the composite structure)
for (auto& skinQuant : compositeQuantity)
result.push_back({Guid{Guid::fromInt(skinQuant.buildMatIndices.GenerateHashValue())}, skinQuant.projectedArea, skinQuant.volumes});
#endif
break;
}
case profiled:
break;
}
return result;
} //ModelElement::getMaterialQuantities
/*--------------------------------------------------------------------
Get the element body as a list of faces or Meshes
return: A pointer to the element body
--------------------------------------------------------------------*/
ModelElement::Body* ModelElement::getBody() const {
#ifdef ARCHICAD
if (m_data && m_data->m_cache)
return m_data->m_cache.get();
void* dummy = nullptr;
GSErrCode err = ACAPI_Sight_GetCurrentWindowSight(&dummy);
if (err != NoError) {
// TODO: should this throw?
}
Modeler::SightPtr currentSightPtr((Modeler::Sight*)dummy); // init the shared ptr with the raw pointer
ModelerAPI::Model acModel;
Modeler::IAttributeReader* attrReader = ACAPI_Attribute_GetCurrentAttributeSetReader();
err = EXPGetModel(currentSightPtr, &acModel, attrReader);
if (err != NoError) {
// TODO: should this throw?
}
auto elementBody = new ModelElement::Body();
// Map to collect meshes per material name
std::unordered_map<String, primitive::Mesh> materialMeshMap;
std::unique_ptr<Memo> memo;
loadMemo(APIMemoMask_All, memo);
auto partIDs = collectPartIDs(getHead().guid, getHead().type.typeID, *memo);
memo.reset();
Int32 nElements = acModel.GetElementCount();
for (Int32 iElement = 1; iElement <= nElements; iElement++) {
ModelerAPI::Element elem{};
acModel.GetElement(iElement, &elem);
API_Guid apiGuid{GSGuid2APIGuid(elem.GetElemGuid())};
if (partIDs.find(apiGuid) == partIDs.end())
continue;
Int32 nBodies = elem.GetTessellatedBodyCount();
ModelerAPI::Material material{};
for (Int32 bodyIndex = 1; bodyIndex <= nBodies; ++bodyIndex) {
ModelerAPI::MeshBody body{};
elem.GetTessellatedBody(bodyIndex, &body);
Int32 polyCount = body.GetPolygonCount();
for (Int32 polyIndex = 1; polyIndex <= polyCount; ++polyIndex) {
ModelerAPI::Polygon polygon{};
body.GetPolygon(polyIndex, &polygon);
ModelerAPI::AttributeIndex attrIndex{};
polygon.GetMaterialIndex(attrIndex);
Guid finishID{Guid::fromInt(attrIndex.GetIndex())};
auto faceFinish = ModelElement::getFinish(finishID);
if (faceFinish == nullptr) {
ModelerAPI::Material material{};
polygon.GetMaterial(&material);
Finish finish{material};
faceFinish = ModelElement::cacheFinish(finishID, finish);
}
auto materialName = faceFinish->getName();
if (materialMeshMap.find(materialName) == materialMeshMap.end())
materialMeshMap[materialName] = primitive::Mesh(*faceFinish);
Int32 convexPolyCount = polygon.GetConvexPolygonCount();
for (Int32 convPolyIndex = 1; convPolyIndex <= convexPolyCount; ++convPolyIndex) {
std::vector<double> vertices;
ModelerAPI::ConvexPolygon convexPolygon{};
polygon.GetConvexPolygon(convPolyIndex, &convexPolygon);
Int32 vertexCount = convexPolygon.GetVertexCount();
for (Int32 vertexIndex = 1; vertexIndex <= vertexCount; ++vertexIndex) {
ModelerAPI::Vertex vertex{};
body.GetVertex(convexPolygon.GetVertexIndex(vertexIndex), &vertex);
// Collect vertices (as doubles for now, but should be changed to Vertex type)
vertices.push_back(vertex.x);
vertices.push_back(vertex.y);
vertices.push_back(vertex.z);
}
materialMeshMap[materialName].appendFace(std::move(vertices));
}
}
}
}
for (auto& [materialName, mesh] : materialMeshMap)
elementBody->push_back(std::move(mesh));
m_data = std::make_unique<Data>();
m_data->m_cache.reset(elementBody);
return m_data->m_cache.get();
#endif
} //ModelElement::getBody
/*--------------------------------------------------------------------
Fill an inventory with the package items
inventory: The inventory to receive the package items
return: True if the package has added items to the inventory
--------------------------------------------------------------------*/
bool ModelElement::fillInventory(Inventory& inventory) const {
using enum Entry::Type;
inventory.merge(Inventory{
{
{ fieldID[bodyID], bodyID, element },
{ fieldID[materialQuantsID], materialQuantsID, element },
{ fieldID[propertyID], propertyID, element },
},
}.withType(&typeid(ModelElement)));
return base::fillInventory(inventory);
} //ModelElement::fillInventory
/*--------------------------------------------------------------------
Get the specified cargo
item: The inventory item to retrieve
return: The requested cargo (nullptr on failure)
--------------------------------------------------------------------*/
Cargo::Unique ModelElement::getCargo(const Inventory::Item& item) const {
if (item.ownerType != &typeid(ModelElement))
return base::getCargo(item);
using namespace active::serialise;
switch (item.index) {
case bodyID:
if (auto body = getBody(); body != nullptr)
return Cargo::Unique{new active::serialise::ContainerWrap{*body}};
return nullptr;
case materialQuantsID:
if (auto quants = getMaterialQuantities(); !quants.empty())
return Cargo::Unique{new CargoHold<ContainerWrap<MaterialQuantityList>, MaterialQuantityList>{quants}};
return nullptr;
case propertyID:
return nullptr;
//return std::make_unique<PropertiedWrapper>(*this);
default:
return nullptr; //Requested an unknown index
}
} //ModelElement::getCargo
/*--------------------------------------------------------------------
Set to the default package content
--------------------------------------------------------------------*/
void ModelElement::setDefault() {
base::setDefault();
m_data.reset();
} //ModelElement::setDefault