void Renderer::cacheModel(const ModelData& data) {
for(auto m: models)
if(data.getName()==m->getName())
return;
models.push_back(new StaticModel{data.getName(),data.vertexdata,data.parts});
}
recondite::Model* reProjectAssets::ImportModel(const wxString& path) {
import::ModelImporter modelImporter;
import::ModelImporterOptions options;
ModelData modelData;
int error = modelImporter.ImportModel(path.c_str().AsChar(), modelData, options);
if (!error) {
modelData.CalculateBoundings();
wxFileName modelPath(path);
wxString modelName = modelPath.GetName();
WriteModel(modelData, modelName);
if (modelData.GetLineMeshCount() == 0) {
CreateSelectionWireframeForModel(modelData);
}
recondite::Model* model = _component->GetEngine()->content->Models()->LoadFromData(modelData, modelName.c_str().AsChar());
wxString modelHandle = GetAssetPath(rAssetType::Model, modelName);
_manifest.Add(rAssetType::Model, modelName.c_str().AsChar(), modelHandle.c_str().AsChar());
return model;
}
return nullptr;
}
void RealTimeStationSearchModelPrivate::slotStationsRegistered(const QString & request,
const QList<Station> &stations)
{
if (!requestRunning(request)) {
return;
}
AbstractBackendWrapper *backend = qobject_cast<AbstractBackendWrapper *>(sender());
if (!backend) {
return;
}
debug("realtime-station-search-model") << "Request" << request << "finished";
removeRequest(request);
bool support = backend->capabilities().contains(CAPABILITY_REAL_TIME_RIDES_FROM_STATION);
ModelDataList addedData;
foreach (Station station, stations) {
ModelData data;
data.insert(Qt::UserRole + STATION_INDEX, QVariant::fromValue(station));
data.insert(Qt::UserRole + BACKEND_IDENTIFIER_INDEX, backend->identifier());
data.insert(RealTimeStationSearchModel::NameRole, station.name());
// TODO ProviderNameRole
data.insert(RealTimeStationSearchModel::SupportRidesFromStationRole, support);
addedData.append(data);
}
void reProjectAssets::OnModelResourceLoaded(rEvent& event) {
rResourceLoadedEvent& resourceLoadedEvent = (rResourceLoadedEvent&)event;
ModelData* modelData = resourceLoadedEvent.GetModelData();
if (modelData->GetLineMeshCount() == 0) {
CreateSelectionWireframeForModel(*modelData);
}
}
WizMix::operator ModelData()
{
int throttleChannel = -1;
bool isTaranis = IS_TARANIS(GetEepromInterface()->getBoard());
ModelData model;
model.used = true;
model.modelId = modelId;
model.setDefaultInputs(settings);
int mixIndex = 0;
int switchIndex = 0;
int timerIndex = 0;
// Safe copy model name
strncpy(model.name, name, WIZ_MODEL_NAME_LENGTH);
model.name[WIZ_MODEL_NAME_LENGTH] = 0;
// Add the channel mixes
for (int i=0; i<WIZ_MAX_CHANNELS; i++ )
{
Channel ch = channel[i];
if (ch.input1 == THROTTLE_INPUT || ch.input2 == THROTTLE_INPUT)
throttleChannel = i;
addMix(model, ch.input1, ch.weight1, i, mixIndex);
addMix(model, ch.input2, ch.weight2, i, mixIndex);
}
// Add the Throttle Cut option
if( options[THROTTLE_CUT_OPTION] && throttleChannel >=0 ) {
model.funcSw[switchIndex].swtch.type = SWITCH_TYPE_SWITCH;
model.funcSw[switchIndex].swtch.index = isTaranis ? SWITCH_SF0 : SWITCH_THR;
model.funcSw[switchIndex].enabled = 1;
model.funcSw[switchIndex].func = (AssignFunc)throttleChannel;
model.funcSw[switchIndex].param = -100;
}
// Add the Flight Timer option
if (options[FLIGHT_TIMER_OPTION] ) {
model.timers[timerIndex].mode.type = SWITCH_TYPE_TIMER_MODE;
model.timers[timerIndex].mode.index = TMRMODE_THR_TRG;
timerIndex++;
}
// Add the Throttle Timer option
if (options[THROTTLE_TIMER_OPTION] && throttleChannel >=0) {
model.timers[timerIndex].mode.type = SWITCH_TYPE_TIMER_MODE;
model.timers[timerIndex].mode.index = TMRMODE_THR;
timerIndex++;
}
return model;
}
void CreateScreen(
ModelData& ScreenMesh)
{
MeshData Screen;
AttribData<vec3> Screen_vert;
Screen_vert.Resize(4);
Screen_vert.Set(0, vec3(-1.0f, 1.0f, 1.0f)); // lu-corner
Screen_vert.Set(1, vec3( 1.0f, 1.0f, 1.0f)); // ru-corner
Screen_vert.Set(2, vec3(-1.0f, -1.0f, 1.0f)); // bl-corner
Screen_vert.Set(3, vec3( 1.0f, -1.0f, 1.0f)); // br-corner
AttribData<vec2> Screen_UVs;
Screen_UVs.Resize(4);
Screen_UVs.Set(0, vec2(0.0f, 0.0f));
Screen_UVs.Set(1, vec2(0.0f, 1.0f));
Screen_UVs.Set(2, vec2(1.0f, 0.0f));
Screen_UVs.Set(3, vec2(1.0f, 1.0f));
AttribData<GLFace16> Screen_face;
Screen_face.Resize(2);
Screen_face.Set(0, GLFace16(0, 1, 2));
Screen_face.Set(1, GLFace16(1, 3, 2));
Polygons polys;
polys.SetFaces(Screen_face);
polys.SetMaterial(0);
AttribData<Polygons> polygons;
polygons.Resize(1);
polygons.Set(0, polys);
Screen.SetName("Screen");
Screen.SetVertexArray(Screen_vert);
Screen.SetUVArray(Screen_UVs);
Screen.SetPolygonList(polygons);
Screen.GenerateNormals(false);
Screen.GenerateTangents();
MaterialData Screen_mat;
Screen_mat.MaterialType = HasRenderedTexture;
Library<MaterialData> lib_mat;
lib_mat.Resize(1);
lib_mat.Set(0, Screen_mat);
Library<MeshData> lib_mesh;
lib_mesh.Resize(1);
lib_mesh.Set(0, Screen);
ScreenMesh.SetMeshData(lib_mesh);
ScreenMesh.SetMaterialData(lib_mat);
}
bool OpenTxEepromInterface::loadModel(ModelData &model, uint8_t *data, int index, unsigned int stickMode)
{
T _model;
if (!data) {
// load from EEPROM
efile->openRd(FILE_MODEL(index));
int sz = efile->readRlc2((uint8_t*)&_model, sizeof(T));
if (sz) {
model = _model;
if (sz < (int)sizeof(T)) {
std::cout << " size(" << model.name << ") " << sz << " < " << (int)sizeof(T) << " ";
}
if (stickMode) {
applyStickModeToModel(model, stickMode);
}
}
else {
model.clear();
}
}
else {
// load from SD Backup, size is stored in index
if ((unsigned int)index < sizeof(T))
return false;
memcpy((uint8_t*)&_model, data, sizeof(T));
model = _model;
}
return true;
}
bool OpenTxEepromInterface::loadModelVariant(unsigned int index, ModelData &model, uint8_t *data, unsigned int version, unsigned int variant)
{
T open9xModel(model, board, version, variant);
if (!data) {
// load from EEPROM
QByteArray eepromData(sizeof(model), 0); // ModelData should be always bigger than the EEPROM struct
efile->openRd(FILE_MODEL(index));
int numbytes = efile->readRlc2((uint8_t *)eepromData.data(), eepromData.size());
if (numbytes) {
open9xModel.Import(eepromData);
// open9xModel.Dump();
model.used = true;
}
else {
model.clear();
}
}
else {
// load from SD Backup, size is stored in index
QByteArray eepromData((char *)data, index);
open9xModel.Import(eepromData);
}
return true;
}
void ResourceThreadModel::Load(const ResourceRequest& request)
{
DALI_ASSERT_DEBUG(request.GetType()->id == ResourceModel);
DALI_LOG_INFO(mLogFilter, Debug::Verbose, "%s(%s)\n", __PRETTY_FUNCTION__, request.GetPath().c_str());
scoped_ptr<ModelBuilder> modelBuilder( CreateModelBuilder(request.GetPath()) );
ModelData modelData = ModelData::New(modelBuilder->GetModelName());
const bool success = modelBuilder->Build(modelData);
if( success )
{
// Construct LoadedResource and ResourcePointer for model data
LoadedResource resource( request.GetId(), request.GetType()->id, ResourcePointer(&(modelData.GetBaseObject())));
// Queue the loaded resource
mResourceLoader.AddLoadedResource(resource);
}
else
{
// add to the failed queue
FailedResource resource(request.GetId(), FailureUnknown);
mResourceLoader.AddFailedLoad(resource);
}
}
int main(int argc, char* argv[])
{
LoaderObj *loader = new LoaderObj();
loader->loadFile("test.obj");
ModelData data;
loader->cloneData(data);
delete loader;
Encoder *encoder = new Encoder();
// FIXME: set data should clone, but here is not.
encoder->setData(data);
encoder->saveFile("test.objc");
data.dispose();
return 0;
}
Model::Model(ModelData & _data) :
UsingShader(&ResMgr::loadShader(simpleShaderName, shaderSrcs::model_Vertex, shaderSrcs::model_Fragment, Shader::FromString), &ResMgr::loadShader(lightShaderName, shaderSrcs::model_LightVertex, shaderSrcs::model_LightFragment, Shader::FromString)),
m_modelData(&_data),
m_vaos(_data.getMeshes().size()),
m_color(Color::Black),
m_useColorOnly(false)
{
setUp();
}
void ModelViewerModule::Init(const rArrayString& args) {
auto createControllerFunc = [&](const rString& name, rEngine* engine, ruiDocument* document) {
return new ModelViewerController(_skeletonGeometry.get(), name, engine, document);
};
auto deleteControllerFunc = [](ruiController* controller) {
delete controller;
};
_engine->ui->RegisterControllerClass("ModelViewerController", createControllerFunc, deleteControllerFunc);
Model* model = nullptr;
rString file, archive;
ParseArgs(args, file, archive);
if (!archive.empty()) {
_engine->resources->OpenArchive(archive);
model = _engine->content->Models()->LoadFromResource(file, "model");
}
else {
auto fileSystemRef = _engine->filesystem->OpenReadFileRef(file);
ModelData modelData;
modelData.Read(*fileSystemRef);
_engine->filesystem->CloseReadFileRef(fileSystemRef);
model = _engine->content->Models()->LoadFromData(modelData, "model");
}
if (model->GetSkeleton()) {
rPawn* pawn = new rPawn(model, "model", _engine);
_skeletonGeometry.reset(new SkeletonGeometry(_engine, pawn));
_engine->scene->AddActor(pawn);
}
else {
rProp* prop = new rProp(model, "model", _engine);
_engine->scene->AddActor(prop);
}
rViewport* mainViewport = CreateView(model, _engine);
_engine->ui->LoadUiDocument("C:/development/recondite/samples/modelviewer/modelviewer/modelviewer.xml", mainViewport);
}
//==============================================================================
// Loads Model Data into OpenGL and Stores Handles in Static Variables
//==============================================================================
void Tree::loadResources() {
shaderProgram = ShaderUtil::createProgram("Tree", std::vector < GLenum > {GL_VERTEX_SHADER, GL_FRAGMENT_SHADER}, true);
sPositionHandle = glGetAttribLocation(shaderProgram, "iPosition");
sNormalHandle = glGetAttribLocation(shaderProgram, "iNormal");
sSunHandle = glGetUniformLocation(shaderProgram, "uSunDirection");
sMVPHandle = glGetUniformLocation(shaderProgram, "uMVP");
sNormalMatrixHandle = glGetUniformLocation(shaderProgram, "uNormalMatrix");
ModelData data = ShaderUtil::loadModel("tree");
verticesVBO = data.getVerticesVBO();
normalsVBO = data.getNormalsVBO();
vertCount = data.getVertCount();
glGenVertexArrays(1, &VAO);
glBindVertexArray(VAO);
glUseProgram(shaderProgram);
//------------------------------------------------------------------------------
// Load Vertex Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, verticesVBO);
glEnableVertexAttribArray(sPositionHandle);
glVertexAttribPointer(sPositionHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
//------------------------------------------------------------------------------
// Load Normal Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, normalsVBO);
glEnableVertexAttribArray(sNormalHandle);
glVertexAttribPointer(sNormalHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
glUseProgram(0);
glBindVertexArray(0);
glBindBuffer(GL_ARRAY_BUFFER, 0);
}
ModelData* ModelComponent::getModelData(){
ModelData *md = new ModelData();
std::map<char,std::vector<QString>* > numbers;
for(std::map<char, QLineEdit*>::iterator i = components.begin(); i != components.end(); i++){
QString txt = i->second->text();
int count = 0;
std::vector<QString> *vecString = new std::vector<QString>();
vecString->push_back("");
numbers[i->first] = vecString;
QString::iterator j = txt.begin();
for(QString::iterator j = txt.begin(); j != txt.end(); j++){
if(((*j) >= '0' && (*j) <= '9') || (*j) == ',' || (*j) == '.' || (*j)=='-'){ //ten warunek mozna poprawic(chodzi o wystapienie dwoch kropek albo minusow
vecString->at(count).push_back( (*j));
}else if((*j) == 32){
count++;
vecString->push_back("");
}else{
break;
//TODO throw execption
}
}
if(vecString->back() == "" ){
vecString->pop_back();
}
}
std::vector<QString>* A = numbers.at('A');
std::vector<double> Adouble;
for(std::vector<QString>::iterator i = A->begin(); i != A->end(); i++){
Adouble.push_back((*i).toDouble());
}
md->setA(Adouble);
std::vector<QString>* B = numbers.at('B');
std::vector<double> Bdouble;
for(std::vector<QString>::iterator i = B->begin(); i != B->end(); i++){
Bdouble.push_back((*i).toDouble());
}
md->setB(Bdouble);
std::vector<QString>* k = numbers.at('k');
md->setK(k->at(0).toDouble());
std::vector<QString>* t = numbers.at('t');
md->setT(t->at(0).toDouble());
std::vector<QString>* nr = numbers.at('nr');
md->setNoiseRatio(nr->at(0).toDouble());
return md;
}
void Gruvin9xInterface::loadModel(ModelData &model, unsigned int stickMode, int version)
{
T _model;
if ((version == 2 && efile->readRlc2((uint8_t*)&_model, sizeof(T))) ||
(version == 1 && efile->readRlc1((uint8_t*)&_model, sizeof(T)))) {
model = _model;
if (stickMode) {
applyStickModeToModel(model, stickMode);
}
}
else {
model.clear();
}
}
const icp_norm_map ModelData::determineSimilarity(const model_map& modelMap, icp_measure normMeasure){
icp_norm_map distanceMap;
if (modelMap.empty())
return distanceMap;
model_map::const_iterator d_i;
icp_matrix icpMat;
for (d_i = modelMap.cbegin(); d_i != modelMap.cend(); d_i++){
ModelData* model = d_i->second;
const std::string name = d_i->first;
if (model == nullptr)
continue;
distanceMap.emplace(name, -1.0); // Default norm --> should never be negative, so serves as an 'uninitialised', marker.
IterClosestPoint::compare(icpMat, model, this, model->cloudIn(), model->cloudOut());
distanceMap[name] = normMeasure(icpMat);
}
return distanceMap;
}
void WeaponManager::LoadWeapon(const char * name, int shootingNodeID , WeaponParams params)
{
ResourceLoader & resaourceLoader = ResourceLoader::GetResourceLoader();
SoldierWeapon * pSoldierWeapon = new SoldierWeapon();
pSoldierWeapon->SetWeaponParams(params );
static char modName[128]={0};
sprintf(modName, "%s.mod",name);
//ModelData * pWeaponModel = resaourceLoader.LoadModel( "M16.mod" );
ModelData * pWeaponModel = resaourceLoader.LoadModel( modName , false, false );
pWeaponModel->GetRoot()->SetVisible(false);
pWeaponModel->GetRoot()->SetUseOcclusionCulling(false);
//pWeaponModel->GetRoot()->SetScale(0.25);
pSoldierWeapon->SetModelData( pWeaponModel );
pSoldierWeapon->SetShootingNode( (Node*)pWeaponModel->mTransforms.GetArray( shootingNodeID ) );
/* Remarked due to DC1 weapon ...
static char uiImageName[128]={0};
sprintf(uiImageName, "BLK_%s.pvr",name);
PVRTexture * pUITexture = resaourceLoader.LoadTexture( uiImageName , true);
pSoldierWeapon->SetUITexture ( pUITexture );
*/
mWeaponsMap.Add(name, pSoldierWeapon);
mWeaponsName[mWeaponCount] = name;
mWeaponCount++;
}
void ClassGraph::addNode(const ModelData &model, char const * const className,
ClassGraph::eAddNodeTypes addType, int nodeDepth, bool reposition)
{
const ModelType *type = model.getTypeRef(className);
const ModelClassifier *classifier = type->getClass();
if(classifier)
{
if(mNodes.size() == 0 && mGraphOptions.drawRelationKey)
{
addRelationKeyNode();
}
size_t startSize = mNodes.size();
getRelatedNodesRecurse(model, classifier, addType, nodeDepth, mNodes);
if(startSize != mNodes.size())
{
mModified = true;
}
updateGraph(model, reposition);
}
}
void Contexts::updateOperationList(const ModelData &modelData,
OovStringRef const className)
{
mOperationList.clear();
const ModelClassifier *cls = modelData.getTypeRef(className)->getClass();
if(cls)
{
for(size_t i=0; i<cls->getOperations().size(); i++)
{
const ModelOperation *oper = cls->getOperations()[i].get();
std::string opStr = oper->getName();
if(oper->isConst())
{
opStr += ' ';
opStr += "const";
}
mOperationList.appendText(opStr);
}
mOperationList.sort();
}
}
int OpenTxEepromInterface::getSize(ModelData &model)
{
if (IS_SKY9X(board))
return 0;
if (model.isempty())
return 0;
// TODO something better
uint8_t tmp[EESIZE_RLC_MAX];
efile->EeFsCreate(tmp, EESIZE_RLC_MAX, board);
OpenTxModelData open9xModel(model, board, 255, GetCurrentFirmware()->getVariantNumber());
QByteArray eeprom;
open9xModel.Export(eeprom);
int sz = efile->writeRlc2(0, FILE_TYP_MODEL, (const uint8_t*)eeprom.constData(), eeprom.size());
if (sz != eeprom.size()) {
return -1;
}
return efile->size(0);
}
Scheduler::Scheduler( ModelData& md ): data(md.GetData())
{
methodsSet.resize(data.GetWFCount());
maxEff = 0.0;
xmlWriter = unique_ptr<ScheduleToXML>(new ScheduleToXML(data));
data.SetWfPriorities();
eff = unique_ptr<Efficiency>(new Efficiency(2.00 / data.GetprocessorsCount(), data.GetT()));
maxPossible = 0.0;
for (int i = 0; i < data.GetResourceCount(); i++){
Intervals initIntervals;
data.Resources(i).GetCurrentWindows(initIntervals);
vector <BusyIntervals> current;
current = initIntervals.GetCurrentIntervals();
for (int j = 0; j < current.size(); j++){
BusyIntervals & processorIntervals = current[j];
for (auto it = processorIntervals.begin(); it != processorIntervals.end(); it++){
for (int k = 0; k < it->second.size(); k++){
maxPossible += eff->EfficiencyByPeriod(1, it->second[k].first, it->second[k].second);
}
}
}
}
maxPossible = 1.00 - maxPossible;
}
Channels::Channels(QWidget * parent, ModelData & model, GeneralSettings & generalSettings, FirmwareInterface * firmware):
ModelPanel(parent, model, generalSettings, firmware)
{
QGridLayout * gridLayout = new QGridLayout(this);
bool minimize = false;
int col = 1;
if (firmware->getCapability(ChannelsName)) {
minimize=true;
addLabel(gridLayout, tr("Name"), col++);
}
addLabel(gridLayout, tr("Subtrim"), col++, minimize);
addLabel(gridLayout, tr("Min"), col++, minimize);
addLabel(gridLayout, tr("Max"), col++, minimize);
addLabel(gridLayout, tr("Direction"), col++, minimize);
if (IS_TARANIS(GetEepromInterface()->getBoard()))
addLabel(gridLayout, tr("Curve"), col++, minimize);
if (firmware->getCapability(PPMCenter))
addLabel(gridLayout, tr("PPM Center"), col++, minimize);
if (firmware->getCapability(SYMLimits))
addLabel(gridLayout, tr("Linear Subtrim"), col++, true);
for (int i=0; i<firmware->getCapability(Outputs); i++) {
col = 0;
// Channel label
QLabel *label = new QLabel(this);
label->setText(tr("Channel %1").arg(i+1));
label->setSizePolicy(QSizePolicy::Fixed, QSizePolicy::Minimum);
gridLayout->addWidget(label, i+1, col++, 1, 1);
// Channel name
int nameLen = firmware->getCapability(ChannelsName);
if (nameLen > 0) {
QLineEdit * name = new QLineEdit(this);
name->setProperty("index", i);
name->setMaxLength(nameLen);
QRegExp rx(CHAR_FOR_NAMES_REGEX);
name->setValidator(new QRegExpValidator(rx, this));
name->setText(model.limitData[i].name);
connect(name, SIGNAL(editingFinished()), this, SLOT(nameEdited()));
gridLayout->addWidget(name, i+1, col++, 1, 1);
}
// Channel offset
limitsGroups << new LimitsGroup(firmware, gridLayout, i+1, col++, model.limitData[i].offset, -1000, 1000, 0);
// Channel min
limitsGroups << new LimitsGroup(firmware, gridLayout, i+1, col++, model.limitData[i].min, -model.getChannelsMax()*10, 0, -1000);
// Channel max
limitsGroups << new LimitsGroup(firmware, gridLayout, i+1, col++, model.limitData[i].max, 0, model.getChannelsMax()*10, 1000);
// Channel inversion
QComboBox * invCB = new QComboBox(this);
invCB->insertItems(0, QStringList() << tr("---") << tr("INV"));
invCB->setProperty("index", i);
invCB->setCurrentIndex((model.limitData[i].revert) ? 1 : 0);
connect(invCB, SIGNAL(currentIndexChanged(int)), this, SLOT(invEdited()));
gridLayout->addWidget(invCB, i+1, col++, 1, 1);
// Curve
if (IS_TARANIS(GetEepromInterface()->getBoard())) {
QComboBox * curveCB = new QComboBox(this);
curveCB->setProperty("index", i);
int numcurves = firmware->getCapability(NumCurves);
for (int j=-numcurves; j<=numcurves; j++) {
curveCB->addItem(CurveReference(CurveReference::CURVE_REF_CUSTOM, j).toString(), j);
}
curveCB->setCurrentIndex(model.limitData[i].curve.value+numcurves);
connect(curveCB, SIGNAL(currentIndexChanged(int)), this, SLOT(curveEdited()));
gridLayout->addWidget(curveCB, i+1, col++, 1, 1);
}
// PPM center
if (firmware->getCapability(PPMCenter)) {
QSpinBox * center = new QSpinBox(this);
center->setProperty("index", i);
center->setAlignment(Qt::AlignRight|Qt::AlignTrailing|Qt::AlignVCenter);
center->setSuffix("us");
center->setMinimum(1375);
center->setMaximum(1625);
center->setValue(1500);
center->setValue(model.limitData[i].ppmCenter + 1500);
connect(center, SIGNAL(editingFinished()), this, SLOT(ppmcenterEdited()));
gridLayout->addWidget(center, i+1, col++, 1, 1);
}
// Symetrical limits
if (firmware->getCapability(SYMLimits)) {
QCheckBox * symlimits = new QCheckBox(this);
symlimits->setProperty("index", i);
symlimits->setChecked(model.limitData[i].symetrical);
connect(symlimits, SIGNAL(toggled(bool)), this, SLOT(symlimitsEdited()));
gridLayout->addWidget(symlimits, i+1, col++, 1, 1);
}
}
void ClassGraph::getRelatedNodesRecurse(const ModelData &model, const ModelType *type,
eAddNodeTypes addType, int maxDepth, std::vector<ClassNode> &nodes)
{
mBackgroundTaskLevel++;
-- maxDepth;
if(maxDepth >= 0 && type /* && type->getObjectType() == otClass*/)
{
const ModelClassifier *classifier = type->getClass();
if(classifier)
{
addNodeToVector(ClassNode(classifier,
getComponentOptions(*type, mGraphOptions)), nodes);
if((addType & AN_MemberChildren) > 0)
{
for(const auto &attr : classifier->getAttributes())
{
#if(DEBUG_ADD)
DebugAdd("Member", attr->getDeclType());
#endif
getRelatedNodesRecurse(model, attr->getDeclType(), addType,
maxDepth, nodes);
}
}
if((addType & AN_Superclass) > 0)
{
for(const auto &assoc : model.mAssociations)
{
if(assoc->getChild() != nullptr && assoc->getParent() != nullptr)
{
if(assoc->getChild() == classifier)
{
#if(DEBUG_ADD)
DebugAdd("Super", assoc->getParent());
#endif
getRelatedNodesRecurse(model, assoc->getParent(),
addType, maxDepth, nodes);
}
}
}
}
if((addType & AN_Subclass) > 0)
{
for(const auto &assoc : model.mAssociations)
{
// Normally the child and parent should not be nullptr.
if(assoc->getChild() != nullptr && assoc->getParent() != nullptr)
{
if(assoc->getParent() == classifier)
{
#if(DEBUG_ADD)
DebugAdd("Subclass", assoc->getChild());
#endif
getRelatedNodesRecurse(model, assoc->getChild(),
addType, maxDepth, nodes);
}
}
}
}
if((addType & AN_FuncParamsUsing) > 0)
{
ConstModelClassifierVector relatedClasses;
model.getRelatedFuncInterfaceClasses(*classifier, relatedClasses);
for(const auto &cls : relatedClasses)
{
#if(DEBUG_ADD)
DebugAdd("Param Using", cls);
#endif
getRelatedNodesRecurse(model, cls, addType, maxDepth, nodes);
}
}
if((addType & AN_FuncBodyUsing) > 0)
{
ConstModelDeclClasses relatedDeclClasses;
model.getRelatedBodyVarClasses(*classifier, relatedDeclClasses);
for(const auto &rdc : relatedDeclClasses)
{
#if(DEBUG_ADD)
DebugAdd("Body Using", rdc.cl);
#endif
getRelatedNodesRecurse(model, rdc.getClass(), addType,
maxDepth, nodes);
}
}
}
if((addType & AN_Templates) > 0)
{
if(type->isTemplateUseType())
{
// Add types pointed to by templates.
ConstModelClassifierVector relatedClassifiers;
model.getRelatedTypeArgClasses(*type, relatedClassifiers);
for(const auto &rc : relatedClassifiers)
{
#if(DEBUG_ADD)
DebugAdd("Templ User", rc);
#endif
getRelatedNodesRecurse(model, rc, addType, maxDepth, nodes);
}
addNodeToVector(ClassNode(type,
getComponentOptions(*type, mGraphOptions)), nodes);
}
}
int taskId = 0;
if(mBackgroundTaskLevel == 1)
{
taskId = mForegroundTaskStatusListener->startTask("Adding relations.",
model.mTypes.size());
}
for(size_t i=0; i<model.mTypes.size(); i++)
{
addRelatedNodesRecurseUserToVector(model, type, model.mTypes[i].get(),
addType, maxDepth, nodes);
if(mBackgroundTaskLevel == 1)
{
if(!mForegroundTaskStatusListener->updateProgressIteration(
taskId, i, nullptr))
{
break;
}
}
}
if(mBackgroundTaskLevel == 1)
{
mForegroundTaskStatusListener->endTask(taskId);
}
}
mBackgroundTaskLevel--;
}
LogicalSwitchesPanel::LogicalSwitchesPanel(QWidget * parent, ModelData & model, GeneralSettings & generalSettings, Firmware * firmware):
ModelPanel(parent, model, generalSettings, firmware),
selectedSwitch(0)
{
int channelsMax = model.getChannelsMax(true);
QGridLayout * gridLayout = new QGridLayout(this);
int col = 1;
addLabel(gridLayout, tr("Function"), col++);
addLabel(gridLayout, tr("V1"), col++);
addLabel(gridLayout, tr("V2"), col++);
addLabel(gridLayout, tr("AND Switch"), col++);
if (firmware->getCapability(LogicalSwitchesExt)) {
addLabel(gridLayout, tr("Duration"), col++);
addLabel(gridLayout, tr("Delay"), col++);
}
lock = true;
for (int i=0; i<firmware->getCapability(LogicalSwitches); i++) {
// The label
QLabel * label = new QLabel(this);
label->setProperty("index", i);
label->setText(tr("L%1").arg(i+1));
label->setContextMenuPolicy(Qt::CustomContextMenu);
label->setMouseTracking(true);
label->setSizePolicy(QSizePolicy::Fixed, QSizePolicy::Minimum);
connect(label, SIGNAL(customContextMenuRequested(QPoint)), this, SLOT(csw_customContextMenuRequested(QPoint)));
gridLayout->addWidget(label, i+1, 0);
// The function
csw[i] = new QComboBox(this);
csw[i]->setProperty("index", i);
connect(csw[i], SIGNAL(currentIndexChanged(int)), this, SLOT(edited()));
gridLayout->addWidget(csw[i], i+1, 1);
// V1
cswitchSource1[i] = new QComboBox(this);
cswitchSource1[i]->setProperty("index",i);
connect(cswitchSource1[i], SIGNAL(currentIndexChanged(int)), this, SLOT(v1Edited(int)));
gridLayout->addWidget(cswitchSource1[i], i+1, 2);
cswitchSource1[i]->setVisible(false);
cswitchValue[i] = new QDoubleSpinBox(this);
cswitchValue[i]->setMaximum(channelsMax);
cswitchValue[i]->setMinimum(-channelsMax);
cswitchValue[i]->setAccelerated(true);
cswitchValue[i]->setDecimals(0);
cswitchValue[i]->setProperty("index", i);
connect(cswitchValue[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
gridLayout->addWidget(cswitchValue[i], i+1, 2);
cswitchValue[i]->setVisible(false);
// V2
QHBoxLayout *v2Layout = new QHBoxLayout();
cswitchSource2[i] = new QComboBox(this);
cswitchSource2[i]->setProperty("index", i);
connect(cswitchSource2[i], SIGNAL(currentIndexChanged(int)), this, SLOT(v2Edited(int)));
v2Layout->addWidget(cswitchSource2[i]);
cswitchSource2[i]->setVisible(false);
cswitchOffset[i] = new QDoubleSpinBox(this);
cswitchOffset[i]->setProperty("index",i);
cswitchOffset[i]->setMaximum(channelsMax);
cswitchOffset[i]->setMinimum(-channelsMax);
cswitchOffset[i]->setAccelerated(true);
cswitchOffset[i]->setDecimals(0);
connect(cswitchOffset[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
cswitchOffset[i]->setVisible(false);
v2Layout->addWidget(cswitchOffset[i]);
cswitchOffset2[i] = new QDoubleSpinBox(this);
cswitchOffset2[i]->setProperty("index",i);
cswitchOffset2[i]->setMaximum(channelsMax);
cswitchOffset2[i]->setMinimum(-channelsMax);
cswitchOffset2[i]->setAccelerated(true);
cswitchOffset2[i]->setDecimals(0);
connect(cswitchOffset2[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
cswitchOffset2[i]->setVisible(false);
v2Layout->addWidget(cswitchOffset2[i]);
cswitchTOffset[i] = new QTimeEdit(this);
cswitchTOffset[i]->setProperty("index",i);
cswitchTOffset[i]->setAccelerated(true);
connect(cswitchTOffset[i],SIGNAL(editingFinished()),this,SLOT(edited()));
v2Layout->addWidget(cswitchTOffset[i]);
cswitchTOffset[i]->setVisible(false);
gridLayout->addLayout(v2Layout, i+1, 3);
// AND
cswitchAnd[i] = new QComboBox(this);
cswitchAnd[i]->setProperty("index", i);
connect(cswitchAnd[i], SIGNAL(currentIndexChanged(int)), this, SLOT(andEdited(int)));
gridLayout->addWidget(cswitchAnd[i], i+1, 4);
if (firmware->getCapability(LogicalSwitchesExt)) {
// Duration
cswitchDuration[i] = new QDoubleSpinBox(this);
cswitchDuration[i]->setProperty("index", i);
cswitchDuration[i]->setSingleStep(0.1);
cswitchDuration[i]->setMaximum(25);
cswitchDuration[i]->setMinimum(0);
cswitchDuration[i]->setAccelerated(true);
cswitchDuration[i]->setDecimals(1);
connect(cswitchDuration[i], SIGNAL(valueChanged(double)), this, SLOT(durationEdited(double)));
gridLayout->addWidget(cswitchDuration[i], i+1, 5);
// Delay
cswitchDelay[i] = new QDoubleSpinBox(this);
cswitchDelay[i]->setProperty("index", i);
cswitchDelay[i]->setSingleStep(0.1);
cswitchDelay[i]->setMaximum(25);
cswitchDelay[i]->setMinimum(0);
cswitchDelay[i]->setAccelerated(true);
cswitchDelay[i]->setDecimals(1);
connect(cswitchDelay[i], SIGNAL(valueChanged(double)), this, SLOT(delayEdited(double)));
gridLayout->addWidget(cswitchDelay[i], i+1, 6);
}
}
void DiscreteObject::setModel(ModelData md){
setParameters(md.getB(), md.getA(), md.getK(), md.getNoiseRatio());
}
DiscreteObject::DiscreteObject(ModelData md){
DiscreteObject(md.getB(), md.getA(), md.getK(), md.getNoiseRatio());
}
void ClassGraph::updateConnections(const ModelData &modelData)
{
mConnectMap.clear();
// Diagram *node1, Diagram *node2
for(size_t ni=0; ni<mNodes.size(); ni++)
{
const ModelType *type = mNodes[ni].getType();
if(type)
{
if(mGraphOptions.drawTemplateRelations)
{
// Go through templates
if(type->isTemplateUseType())
{
ConstModelClassifierVector relatedClassifiers;
modelData.getRelatedTypeArgClasses(*type, relatedClassifiers);
for(auto const &cl : relatedClassifiers)
{
insertConnection(ni, cl, ClassConnectItem(ctTemplateDependency));
}
}
}
const ModelClassifier *classifier = type->getClass();
if(classifier)
{
// Get attributes of classifier, and get the decl type
for(const auto &attr : classifier->getAttributes())
{
insertConnection(ni, attr->getDeclType(),
ClassConnectItem(ctAggregation, attr->isConst(),
attr->isRefer(), attr->getAccess()));
}
if(mGraphOptions.drawOperParamRelations)
{
// Get operations parameters of classifier, and get the decl type
ConstModelDeclClasses declClasses;
modelData.getRelatedFuncParamClasses(*classifier, declClasses);
for(const auto &declCl : declClasses)
{
const ModelDeclarator *decl = declCl.getDecl();
insertConnection(ni, declCl.getClass(), ClassConnectItem(ctFuncParam,
decl->isConst(), decl->isRefer(), Visibility()));
}
}
if(mGraphOptions.drawOperBodyVarRelations)
{
// Get operations parameters of classifier, and get the decl type
ConstModelDeclClasses declClasses;
modelData.getRelatedBodyVarClasses(*classifier, declClasses);
for(const auto &declCl : declClasses)
{
const ModelDeclarator *decl = declCl.getDecl();
insertConnection(ni, declCl.getClass(), ClassConnectItem(ctFuncVar,
decl->isConst(), decl->isRefer(), Visibility()));
}
}
// Go through associations, and get related classes.
for(const auto &assoc : modelData.mAssociations)
{
size_t n1Index = NO_INDEX;
size_t n2Index = NO_INDEX;
if(assoc->getChild() == classifier)
{
n1Index = getNodeIndex(assoc->getParent());
n2Index = ni;
}
else if(assoc->getParent() == classifier)
{
n1Index = ni;
n2Index = getNodeIndex(assoc->getChild());
}
if(n1Index != NO_INDEX && n2Index != NO_INDEX)
{
insertConnection(n1Index, n2Index,
ClassConnectItem(ctIneritance, assoc->getAccess()));
}
}
}
}
}
}
ProblemData* InputData ( Problem *problem )
{
#ifdef PARALLEL
// Get the run suffix to enable viewing with paraview
int myPID = 0, numProcs=1, strSize=30;
MPI_Comm_rank(MPI_COMM_WORLD, &myPID), MPI_Comm_size(MPI_COMM_WORLD, &numProcs);
int numDigits = std::floor(std::log10(numProcs))+1;
char *exoSuffix=(char*) alloca(sizeof(char)*strSize), formatStr[] = ".%i.%0\0\0\0\0\0\0\0\0", *nemFolder=(char*) alloca(sizeof(char)*strSize);
std::strncpy(exoSuffix,"\0",strSize), std::strncpy(nemFolder,"\0",strSize);
std::sprintf(formatStr+6,"%ii",numDigits);
std::sprintf(exoSuffix,formatStr,numProcs,myPID);
std::sprintf(nemFolder,"./nem-%i/",numProcs);
#endif
// Local variables
ParseInputHelper parseInputHelper = ParseInputHelper();
// Create the ProblemData,MeshData,SolverData, and ModelData
ProblemData* pd = problem->GetProblemData();
MeshData* meshData = pd->CreateMeshDataStruct();
SolverData* solverData = pd->CreateSolverDataStruct();
ModelData* modelData = pd->CreateModelDataStruct();
meshData->mMeshFileData = new MeshFileData();
solverData->mTimeSolverData = new TimeSolverData();
solverData->mNonlinearSolverDataList.push_back(new NonlinearSolverData());
solverData->mLinearSolverDataList.push_back(new LinearSolverData());
modelData->mModelFileData = new ModelFileData();
modelData->mStrucModelData = new StrucModelData();
SolutionData* solutionData = new SolutionData();
modelData->mSolutionData.push_back( solutionData );
///Set Problem and Mesh
meshData->SetMeshId ( 1 );
meshData->mMeshFileData->mMeshFileType = MESH_EXODUS;
const char* InputMeshName = "beam2D.g";
#ifdef PARALLEL
std::sprintf(meshData->mMeshFileData->mMeshFileBase, "%s%s" , nemFolder, InputMeshName );
std::sprintf(meshData->mMeshFileData->mMeshFile , "%s%s%s", nemFolder, InputMeshName, exoSuffix );
#else
std::sprintf(meshData->mMeshFileData->mMeshFileBase, "%s", InputMeshName );
std::sprintf(meshData->mMeshFileData->mMeshFile , "%s", InputMeshName );
#endif
/// Time Integration options
solverData->SetSolverId ( 1 );
solverData->mTimeSolverData->mType = TIME_SOLVER_FEMDOC_BDF;
solverData->mTimeSolverData->mBdfOrder = 2;
solverData->mTimeSolverData->mTime = 0.0;
solverData->mTimeSolverData->mTimeIts = sNumIts;
solverData->mTimeSolverData->mTimeItList[0] = solverData->mTimeSolverData->mTimeIts;
solverData->mTimeSolverData->mDt = sTimeStep;
solverData->mTimeSolverData->mDtList[0] = solverData->mTimeSolverData->mDt;
// solverData->mTimeSolverData->mMaxTime = solverData->mTimeSolverData->mTimeIts*solverData->mTimeSolverData->mDt;
solverData->mTimeSolverData->mBeta = 0.25; // Newmark Alpha
solverData->mTimeSolverData->mGamma = 0.5; // Newmark Delta
solverData->mTimeSolverData->mAlphaF = 0.0;
solverData->mTimeSolverData->mAlphaM = 0.0;
solverData->mTimeSolverData->mTotResNorm = 1.0e-12;
solverData->mTimeSolverData->mTotResNormDrop = 1.0e-12;
solverData->mTimeSolverData->mNondimDivisor = 1.0;
solverData->mTimeSolverData->mJacCheck = false;
solverData->mTimeSolverData->mNaNCheck = false;
solverData->mTimeSolverData->mReinitByStandaloneFile = true;
const char* tempPath = "tempDir/";
solverData->mTimeSolverData->mSolVecDir = new char[200];
strcpy(solverData->mTimeSolverData->mSolVecDir,tempPath);
/// Newton solver and linear solver options
solverData->mNonlinearSolverDataList[0]->mType = NONLINEAR_SOLVER_FEMDOC_NEWTON;
solverData->mNonlinearSolverDataList[0]->mMaxItsList[0] = 10;
solverData->mNonlinearSolverDataList[0]->mRelaxation = 1.0;
solverData->mNonlinearSolverDataList[0]->mRlxList[0] = solverData->mNonlinearSolverDataList[0]->mRelaxation;
solverData->mNonlinearSolverDataList[0]->mTotResNormDrop = 1.0e-3;
solverData->mNonlinearSolverDataList[0]->mTotResNorm = 1.0e-20;
/// Linear solver options
solverData->mLinearSolverDataList[0]->mSparseMatrixType = SPARSE_MATRIX_TRILINOS_EPETRA_FECRS;
// solverData->mLinearSolverDataList[0]->mType = LINSOL_TRILINOS_AMESOS;
//#ifdef PARALLEL
// solverData->mLinearSolverDataList[0]->mMethod = LINSOL_AMESOS_MUMPS;
//#else
// solverData->mLinearSolverDataList[0]->mMethod = LINSOL_AMESOS_UMFPACK;
//#endif
// solverData->mLinearSolverDataList[0]->mExport = LINSOL_EXPORT_MATLAB;
solverData->mLinearSolverDataList[0]->mType = LINSOL_TRILINOS_AZTEC;
solverData->mLinearSolverDataList[0]->mMethod = LINSOL_AZTEC_GMRES;
solverData->mLinearSolverDataList[0]->mPreconditioner = LINSOL_PREC_AZTEC_DD_ILUT;
solverData->mLinearSolverDataList[0]->mKrylovSpace = 500;
solverData->mLinearSolverDataList[0]->mMaxIts = 3000;
solverData->mLinearSolverDataList[0]->mDropTol = 1.0e-09;
solverData->mLinearSolverDataList[0]->mGraphFill = 1;
solverData->mLinearSolverDataList[0]->mIlutFill = 7.0;
solverData->mLinearSolverDataList[0]->mPolyOrder = 3;
solverData->mLinearSolverDataList[0]->mAlphaThresh = 0.0;
solverData->mLinearSolverDataList[0]->mRhoThresh = 0.0;
solverData->mLinearSolverDataList[0]->mEpsilon = 1.0e-09;
solverData->mLinearSolverDataList[0]->mOverlap = 1;
solverData->mLinearSolverDataList[0]->mReorder = 1;
solverData->mLinearSolverDataList[0]->mHardBreak = false;
solverData->mLinearSolverDataList[0]->mOutput = LINSOL_OUTPUT_ALL;
/// Model Data
modelData->SetModelId( 1 );
modelData->mMeshId = 1;
modelData->mSolverId = 1;
modelData->mModelFileData->mModelFileType = MODEL_FEMDOC;
modelData->mStrucModelData->mRedDimType = PLANE_STRAIN;
// strcpy(modelData->mModelFileData->mIniLevelSetFile,"./IniLSStrucBeam.so");
modelData->mXFemCurvatureSearchRadius = sCurvatureSearchRadius;
modelData->mXFemCurvatureSpringStiff = sCurvatureSpringStiff;
modelData->mdScalar_ds_byAdv = false;
/// Solution writing format
solutionData->mSolnFormatType = SF_EXODUS;
const char* OutputMeshBase = "beam2D.e-s";
solutionData->mSaveIC = sSaveIC;
solutionData->mOptSaveFreq = 1;
solutionData->mSaveOpt = true;
solutionData->mIsXFem = (sXfemBlockElemType!=NON_XFEM_ELEMENT);
strcpy(solutionData->mSolnFileBase,OutputMeshBase);
strcpy(solutionData->mSolnFileName,OutputMeshBase);
#ifdef PARALLEL
std::sprintf(solutionData->mSolnFileBase, "%s%s", nemFolder, OutputMeshBase );
std::sprintf(solutionData->mSolnFileName, "%s%s", nemFolder, OutputMeshBase );
#else
std::sprintf(solutionData->mSolnFileBase, "%s", OutputMeshBase );
std::sprintf(solutionData->mSolnFileName, "%s", OutputMeshBase );
#endif
/// Post Processing Output Variables
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_UX , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_UY , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_UX_XFEM , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_UY_XFEM , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_NP_LEVELSET , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SXX , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SYY , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SZZ , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SXY , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SHY , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables (solutionData, SOL_STRUC_SVM , ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables( solutionData, SOL_OBJ_SENS, ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables( solutionData, SOL_CONST_1_SENS, ELEM_VAR, 1, sBSetIds );
parseInputHelper.CreateNodalOutputVariables( solutionData, SOL_INTERFACE_CURVATURE_BEAM_LAGRANGE, ELEM_VAR, 1, sBSetIds );
// for (UInt ie = 0; ie <(sNumDofsPerNodeMax*MAX_NUM_ENRICHMENTS); ++ie)
// for (UInt ie = 0; ie <(sNumDofsPerNodeMax*MAX_NUM_ENRICHMENTS_2D); ++ie) // NOTE:: Only use if code was compiled with the hack MAX_NUM_ENRICHMENTS=MAX_NUM_ENRICHMENTS_2D
// parseInputHelper.CreateNodalOutputVariables (solutionData, (SolVarType) (SOL_XFEM000+ie), ELEM_VAR, 1, sBSetIds);
parseInputHelper.CreateBlockSetOutputVariables(solutionData, SOL_EP_MAIN_PHASE , 1, sBSetIds );
parseInputHelper.CreateBlockSetOutputVariables(solutionData, SOL_STRUC_STEN , 1, sBSetIds );
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_VOLUME_PHASE_1, ELEM_VAR, 1, sBSetIds , 0, NULL);
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_VOLUME_PHASE_2, ELEM_VAR, 1, sBSetIds , 0, NULL);
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_STRAIN_ENERGY, ELEM_VAR, 1, sBSetIds , 0, NULL);
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_PERIMETER, ELEM_VAR, 1, sBSetIds , 0, NULL);
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_CURVATURE_TYPE, ELEM_VAR, 1, sBSetIds , 0, NULL);
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_UX, ELEM_VAR, 1, sBSetIds , 1, (sNSetIds+sLoadNSSetIndx));
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_UY, ELEM_VAR, 1, sBSetIds , 1, (sNSetIds+sLoadNSSetIndx));
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_UX_SQ, ELEM_VAR, 1, sBSetIds , 1, (sNSetIds+sLoadNSSetIndx));
parseInputHelper.CreateGlobalOutputVariables (solutionData, GSOL_UY_SQ, ELEM_VAR, 1, sBSetIds , 1, (sNSetIds+sLoadNSSetIndx));
return pd;
}
LogicalSwitchesPanel::LogicalSwitchesPanel(QWidget * parent, ModelData & model, GeneralSettings & generalSettings, Firmware * firmware):
ModelPanel(parent, model, generalSettings, firmware),
selectedSwitch(0)
{
Stopwatch s1("LogicalSwitchesPanel");
int channelsMax = model.getChannelsMax(true);
QStringList headerLabels;
headerLabels << "#" << tr("Function") << tr("V1") << tr("V2") << tr("AND Switch");
if (firmware->getCapability(LogicalSwitchesExt)) {
headerLabels << tr("Duration") << tr("Delay");
}
TableLayout * tableLayout = new TableLayout(this, firmware->getCapability(LogicalSwitches), headerLabels);
s1.report("header");
lock = true;
for (int i=0; i<firmware->getCapability(LogicalSwitches); i++) {
// The label
QLabel * label = new QLabel(this);
label->setProperty("index", i);
label->setText(tr("L%1").arg(i+1));
label->setContextMenuPolicy(Qt::CustomContextMenu);
label->setMouseTracking(true);
label->setSizePolicy(QSizePolicy::Fixed, QSizePolicy::Minimum);
connect(label, SIGNAL(customContextMenuRequested(QPoint)), this, SLOT(csw_customContextMenuRequested(QPoint)));
tableLayout->addWidget(i, 0, label);
// The function
csw[i] = new QComboBox(this);
csw[i]->setProperty("index", i);
connect(csw[i], SIGNAL(currentIndexChanged(int)), this, SLOT(edited()));
tableLayout->addWidget(i, 1, csw[i]);
// V1
QHBoxLayout *v1Layout = new QHBoxLayout();
cswitchSource1[i] = new QComboBox(this);
cswitchSource1[i]->setProperty("index",i);
connect(cswitchSource1[i], SIGNAL(currentIndexChanged(int)), this, SLOT(v1Edited(int)));
v1Layout->addWidget(cswitchSource1[i]);
cswitchSource1[i]->setVisible(false);
cswitchValue[i] = new QDoubleSpinBox(this);
cswitchValue[i]->setMaximum(channelsMax);
cswitchValue[i]->setMinimum(-channelsMax);
cswitchValue[i]->setAccelerated(true);
cswitchValue[i]->setDecimals(0);
cswitchValue[i]->setProperty("index", i);
connect(cswitchValue[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
v1Layout->addWidget(cswitchValue[i]);
cswitchValue[i]->setVisible(false);
tableLayout->addLayout(i, 2, v1Layout);
// V2
QHBoxLayout *v2Layout = new QHBoxLayout();
cswitchSource2[i] = new QComboBox(this);
cswitchSource2[i]->setProperty("index", i);
connect(cswitchSource2[i], SIGNAL(currentIndexChanged(int)), this, SLOT(v2Edited(int)));
v2Layout->addWidget(cswitchSource2[i]);
cswitchSource2[i]->setVisible(false);
cswitchOffset[i] = new QDoubleSpinBox(this);
cswitchOffset[i]->setProperty("index",i);
cswitchOffset[i]->setMaximum(channelsMax);
cswitchOffset[i]->setMinimum(-channelsMax);
cswitchOffset[i]->setAccelerated(true);
cswitchOffset[i]->setDecimals(0);
connect(cswitchOffset[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
cswitchOffset[i]->setVisible(false);
v2Layout->addWidget(cswitchOffset[i]);
cswitchOffset2[i] = new QDoubleSpinBox(this);
cswitchOffset2[i]->setProperty("index",i);
cswitchOffset2[i]->setMaximum(channelsMax);
cswitchOffset2[i]->setMinimum(-channelsMax);
cswitchOffset2[i]->setAccelerated(true);
cswitchOffset2[i]->setDecimals(0);
connect(cswitchOffset2[i], SIGNAL(valueChanged(double)), this, SLOT(edited()));
cswitchOffset2[i]->setVisible(false);
v2Layout->addWidget(cswitchOffset2[i]);
cswitchTOffset[i] = new QTimeEdit(this);
cswitchTOffset[i]->setProperty("index",i);
cswitchTOffset[i]->setAccelerated(true);
connect(cswitchTOffset[i],SIGNAL(editingFinished()),this,SLOT(edited()));
v2Layout->addWidget(cswitchTOffset[i]);
cswitchTOffset[i]->setVisible(false);
tableLayout->addLayout(i, 3, v2Layout);
// AND
cswitchAnd[i] = new QComboBox(this);
cswitchAnd[i]->setProperty("index", i);
connect(cswitchAnd[i], SIGNAL(currentIndexChanged(int)), this, SLOT(andEdited(int)));
tableLayout->addWidget(i, 4, cswitchAnd[i]);
if (firmware->getCapability(LogicalSwitchesExt)) {
// Duration
cswitchDuration[i] = new QDoubleSpinBox(this);
cswitchDuration[i]->setProperty("index", i);
cswitchDuration[i]->setSingleStep(0.1);
cswitchDuration[i]->setMaximum(25);
cswitchDuration[i]->setMinimum(0);
cswitchDuration[i]->setAccelerated(true);
cswitchDuration[i]->setDecimals(1);
connect(cswitchDuration[i], SIGNAL(valueChanged(double)), this, SLOT(durationEdited(double)));
tableLayout->addWidget(i, 5, cswitchDuration[i]);
// Delay
cswitchDelay[i] = new QDoubleSpinBox(this);
cswitchDelay[i]->setProperty("index", i);
cswitchDelay[i]->setSingleStep(0.1);
cswitchDelay[i]->setMaximum(25);
cswitchDelay[i]->setMinimum(0);
cswitchDelay[i]->setAccelerated(true);
cswitchDelay[i]->setDecimals(1);
connect(cswitchDelay[i], SIGNAL(valueChanged(double)), this, SLOT(delayEdited(double)));
tableLayout->addWidget(i, 6, cswitchDelay[i]);
}
}
void Villager::loadResources() {
ModelData data = ShaderUtil::loadModel("villager");
verticesVBO = data.getVerticesVBO();
normalsVBO = data.getNormalsVBO();
boneWeightsVBO = data.getBoneWeightsVBO();
boneIndicesVBO = data.getBoneIndicesVBO();
vertCount = data.getVertCount();
baseSkeleton = data.getSkeleton();
std::vector<GLenum> shadersUsed {GL_VERTEX_SHADER, GL_FRAGMENT_SHADER};
shaderProgram = ShaderUtil::createProgram("Villager", shadersUsed, true);
sMVPHandle = glGetUniformLocation(shaderProgram, "uMVP");
sSunHandle = glGetUniformLocation(shaderProgram, "uSunDirection");
sNormalMatrixHandle = glGetUniformLocation(shaderProgram, "uNormalMatrix");
sBoneWeightsHandle = glGetAttribLocation(shaderProgram, "iBoneWeights");
sBoneIndicesHandle = glGetAttribLocation(shaderProgram, "iBoneIndices");
sPositionHandle = glGetAttribLocation(shaderProgram, "iPosition");
sNormalHandle = glGetAttribLocation(shaderProgram, "iNormal");
sBoneMatricesHandle = glGetUniformLocation(shaderProgram, "uBoneMatrices");
glGenVertexArrays(1, &VAO);
glBindVertexArray(VAO);
glUseProgram(shaderProgram);
//------------------------------------------------------------------------------
// Load Vertex Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, verticesVBO);
glEnableVertexAttribArray(sPositionHandle);
glVertexAttribPointer(sPositionHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
//------------------------------------------------------------------------------
// Load Normal Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, normalsVBO);
glEnableVertexAttribArray(sNormalHandle);
glVertexAttribPointer(sNormalHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
//------------------------------------------------------------------------------
// Load Bone Weight Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, boneWeightsVBO);
glEnableVertexAttribArray(sBoneWeightsHandle);
glVertexAttribPointer(sBoneWeightsHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
//------------------------------------------------------------------------------
// Load Bone Indices Data
//------------------------------------------------------------------------------
glBindBuffer(GL_ARRAY_BUFFER, boneIndicesVBO);
glEnableVertexAttribArray(sBoneIndicesHandle);
glVertexAttribPointer(sBoneIndicesHandle, 3, GL_FLOAT, GL_FALSE, 0, NULL);
glUseProgram(0);
glBindVertexArray(0);
glBindBuffer(GL_ARRAY_BUFFER, 0);
}
