///High level test: simple node connections test
TEST_F(BaseTest,SimpleNodeConnections) {
///create the generator
NodePtr generator = createNode(_dotGeneratorPluginID);
///create the writer and set its output filename
NodePtr writer = createNode(_writeOIIOPluginID);
ASSERT_TRUE(writer && generator);
connectNodes(generator, writer, 0, true);
connectNodes(generator, writer, 0, false); //< expect it to fail
disconnectNodes(generator, writer, true);
disconnectNodes(generator, writer, false);
connectNodes(generator, writer, 0, true);
}
void GraphViewer::paint(Graphics& g)
{
g.fillAll(Colours::darkgrey);
g.setFont(labelFont);
g.setFont(50);
g.setColour(Colours::grey);
JUCEApplication* app = JUCEApplication::getInstance();
String text = "GUI version ";
text += app->getApplicationVersion();
g.drawFittedText("open ephys", 40, 40, getWidth()-50, getHeight()-60, Justification::bottomRight, 100);
g.setFont(Font("Small Text", 14, Font::plain));
g.drawFittedText(text, 40, 40, getWidth()-50, getHeight()-45, Justification::bottomRight, 100);
// draw connections
for (int i = 0; i < availableNodes.size(); i++)
{
if (!availableNodes[i]->isSplitter())
{
if (availableNodes[i]->getDest() != nullptr)
{
int indexOfDest = indexOfEditor(availableNodes[i]->getDest());
if (indexOfDest > -1)
connectNodes(i, indexOfDest, g);
}
}
else
{
Array<GenericEditor*> editors = availableNodes[i]->getConnectedEditors();
for (int path = 0; path < 2; path++)
{
int indexOfDest = indexOfEditor(editors[path]);
if (indexOfDest > -1)
connectNodes(i, indexOfDest, g);
}
}
}
}
MStatus polyModifierCmd::doModifyPoly()
{
MStatus status = MS::kFailure;
if( isCommandDataValid() )
{
// Get the state of the polyMesh
//
collectNodeState();
if( !fHasHistory && !fHasRecordHistory )
{
MObject meshNode = fDagPath.node();
// Pre-process the mesh - Cache old mesh (including tweaks, if applicable)
//
cacheMeshData();
cacheMeshTweaks();
// Call the directModifier
//
status = directModifier( meshNode );
}
else
{
MObject modifierNode;
createModifierNode( modifierNode );
initModifierNode( modifierNode );
status = connectNodes( modifierNode );
}
}
return status;
}
void GameConsole::unloadLibretro() {
qCDebug( phxControl ) << Q_FUNC_INFO;
for( QMetaObject::Connection connection : sessionConnections ) {
disconnect( connection );
}
sessionConnections.clear();
// Restore global pipeline connections severed by the Libretro pipeline
connectNodes( phoenixWindow, microTimer );
connectNodes( remapper, sdlUnloader );
if( quitFlag ) {
gameThread->quit();
}
}
void GraphViewer::paint (Graphics& g)
{
g.fillAll (Colours::darkgrey);
g.setFont (FONT_LABEL);
g.setColour (Colours::grey);
g.drawFittedText ("open ephys", 40, 40, getWidth()-50, getHeight()-60, Justification::bottomRight, 100);
g.setFont (FONT_VERSION);
g.drawFittedText (currentVersionText, 40, 40, getWidth()-50, getHeight()-45, Justification::bottomRight, 100);
// Draw connections
const int numAvailableNodes = availableNodes.size();
for (int i = 0; i < numAvailableNodes; ++i)
{
if (! availableNodes[i]->isSplitter())
{
if (availableNodes[i]->getDest() != nullptr)
{
int indexOfDest = getIndexOfEditor (availableNodes[i]->getDest());
if (indexOfDest > -1)
connectNodes (i, indexOfDest, g);
}
}
else
{
Array<GenericEditor*> editors = availableNodes[i]->getConnectedEditors();
for (int path = 0; path < 2; ++path)
{
int indexOfDest = getIndexOfEditor (editors[path]);
if (indexOfDest > -1)
connectNodes (i, indexOfDest, g);
}
}
}
}
void
Monitor::NodeGenerator::draw(QGraphicsScene *nodeScene)
{
nMap_.clear();
generate(root_, nodeScene, 0, 0);
connectNodes(nodeScene);
// reset scene size. this doesn't happen automatically
nodeScene->setSceneRect(nodeScene->itemsBoundingRect());
}
void GraphTranslator::makeBigBang()
{
for (size_type i = 0; i < mNodeNumber; ++i){
std::string name = (boost::format("%1%-%2%") % mPrefix % i).str();
createNewNode(name, mClass[i]);
}
for (size_type i = 0; i < mNodeNumber; ++i) {
for (size_type j = 0; j < mNodeNumber; ++j) {
if (mGraph[j][i]) {
connectNodes(j, i);
}
}
}
}
void GameConsole::loadLibretro() {
// Ensure that the properties were set in QML
Q_ASSERT_X( controlOutput, "libretro load", "controlOutput was not set!" );
Q_ASSERT_X( videoOutput, "libretro load", "videoOutput was not set!" );
Q_ASSERT_X( variableModel, "libretro load", "variableModel was not set!" );
// Disconnect PhoenixWindow from MicroTimer, insert libretroLoader in between
disconnectNodes( phoenixWindow, microTimer );
sessionConnections << connectNodes( phoenixWindow, libretroLoader );
sessionConnections << connectNodes( libretroLoader, microTimer );
// Disconnect SDLRunner from Remapper, it'll get inserted after LibretroRunner
disconnectNodes( remapper, sdlUnloader );
// Connect LibretroVariableForwarder to the global pipeline
sessionConnections << connectNodes( remapper, libretroVariableForwarder );
sessionConnections << connectNodes( libretroVariableForwarder, libretroRunner );
// Connect LibretroRunner to its children
sessionConnections << connectNodes( libretroRunner, audioOutput );
sessionConnections << connectNodes( libretroRunner, sdlUnloader );
// It's very important that ControlOutput is always connected via a queued connection as things that handle
// state changes (things that listen to ControlOutput) should not be at the top of a stack that contains
// the function calls that changed the state in the first place. This only really applies when we're single-threaded.
sessionConnections << connectNodes( libretroRunner, controlOutput, Qt::QueuedConnection );
sessionConnections << connectNodes( libretroRunner, videoOutput );
// Hook LibretroCore so we know when commands have reached it
// We can't hook ControlOutput as it lives on the main thread and if it's time to quit the main thread's event loop is dead
// We care about this happening as LibretroCore needs to save its running game before quitting
sessionConnections << connect( libretroRunner, &Node::commandOut, libretroRunner, [ & ]( Command command, QVariant, qint64 ) {
switch( command ) {
case Command::Stop: {
unloadLibretro();
break;
}
default: {
break;
}
}
} );
}
///High level test: render 1 frame of dot generator
TEST_F(BaseTest, GenerateDot)
{
///create the generator
NodePtr generator = createNode(_generatorPluginID);
///create the writer and set its output filename
NodePtr writer = createNode(_writeOIIOPluginID);
ASSERT_TRUE(generator && writer);
KnobIPtr frameRange = generator->getApp()->getProject()->getKnobByName("frameRange");
ASSERT_TRUE(frameRange);
KnobIntPtr knob = toKnobInt(frameRange);
ASSERT_TRUE(knob);
knob->setValue(1, ViewSpec::all(), 0);
knob->setValue(1, ViewSpec::all(), 1);
Format f(0, 0, 200, 200, "toto", 1.);
generator->getApp()->getProject()->setOrAddProjectFormat(f);
const QString& binPath = appPTR->getApplicationBinaryPath();
QString filePath = binPath + QString::fromUtf8("/test_dot_generator.jpg");
writer->setOutputFilesForWriter( filePath.toStdString() );
///attempt to connect the 2 nodes together
connectNodes(generator, writer, 0, true);
///and start rendering. This call is blocking.
std::list<AppInstance::RenderWork> works;
AppInstance::RenderWork w;
w.writer = toOutputEffectInstance( writer->getEffectInstance() );
assert(w.writer);
w.firstFrame = INT_MIN;
w.lastFrame = INT_MAX;
w.frameStep = INT_MIN;
w.useRenderStats = false;
works.push_back(w);
getApp()->startWritersRendering(false, works);
EXPECT_TRUE( QFile::exists(filePath) );
QFile::remove(filePath);
}
void causalgraph::computeLinks(std::vector<recyclegate*> operationOrder)
{
for(std::list<recyclegate*>::iterator it = tmpCircuit.begin();
it != tmpCircuit.end(); it++)
{
(*it)->willPush.clear();
(*it)->pushedBy.clear();
}
std::map<wireelement*, recyclegate*> lastSeen;
// int lines = getRoots().size();
std::vector<recyclegate*> roots = getRoots();
for(size_t i = 0; i < roots.size(); i++)
{
lastSeen[roots[i]->wirePointers[0]] = NULL; //the ids of the inputs
}
for(std::vector<recyclegate*>::iterator itOperation = operationOrder.begin();
itOperation != operationOrder.end(); itOperation++)
{
//ce cauta nrWire aici?
int nrWire = 0;
for(std::vector<wireelement*>::iterator itWire = (*itOperation)->wiresToUseForLinks.begin();
itWire != (*itOperation)->wiresToUseForLinks.end(); itWire++)
{
//if(*itWire < lines)
// {
if(lastSeen[*itWire] != NULL)
{
//the same wire for both gates
// connectNodes(*itWire, *itWire, lastSeen[*itWire], *itOperationId);
connectNodes(-1, nrWire, lastSeen[*itWire], *itOperation);
}
lastSeen[*itWire] = *itOperation;
nrWire++;
// }
}
}
}
void PathGraph::readObject(IffStream* iffStream) {
iffStream->openForm('PGRF');
iffStream->openForm('0001');
iffStream->openChunk('META');
unkownMetaInt = iffStream->getInt();
iffStream->closeChunk('META');
iffStream->openChunk('PNOD');
int nodesSize = iffStream->getInt();
for (int i = 0; i < nodesSize; ++i) {
PathNode* pathNode = new PathNode(this);
pathNode->readObject(iffStream);
pathNodes.add(pathNode);
}
iffStream->closeChunk('PNOD');
iffStream->openChunk('PEDG');
//Vector<PathEdge> pathEdges;
int pathEdgeSize = iffStream->getInt();
for (int i = 0; i < pathEdgeSize; ++i) {
PathEdge* pathEdge = new PathEdge();
pathEdge->readObject(iffStream);
pathEdges.add(pathEdge);
}
iffStream->closeChunk('PEDG');
iffStream->openChunk('ECNT');
int ecntSize = iffStream->getInt();
for (int i = 0; i < ecntSize; ++i) {
ecnt.add(iffStream->getInt());
}
iffStream->closeChunk('ECNT');
iffStream->openChunk('ESTR');
int estrSize = iffStream->getInt();
for (int i = 0; i < estrSize; ++i) {
estr.add(iffStream->getInt());
}
iffStream->closeChunk('ESTR');
iffStream->closeForm('0001');
iffStream->closeForm('PGRF');
connectNodes();
}
void PathGraph::readObject(IffStream* iffStream) {
iffStream->openForm('PGRF');
iffStream->openForm('0001');
iffStream->openChunk('META');
type = static_cast<PathGraphType>(iffStream->getInt());
iffStream->closeChunk('META');
iffStream->openChunk('PNOD');
int nodesSize = iffStream->getInt();
for (int i = 0; i < nodesSize; ++i) {
PathNode* pathNode = new PathNode(this);
pathNode->readObject(iffStream);
pathNodes.add(pathNode);
}
iffStream->closeChunk('PNOD');
iffStream->openChunk('PEDG');
Vector<PathEdge> pathEdges;
int pathEdgeSize = iffStream->getInt();
for (int i = 0; i < pathEdgeSize; ++i) {
PathEdge pathEdge;
pathEdge.readObject(iffStream);
pathEdges.add(pathEdge);
}
iffStream->closeChunk('PEDG');
iffStream->openChunk('ECNT');
int ecntSize = iffStream->getInt();
for (int i = 0; i < ecntSize; ++i) {
edgeCounts.add(iffStream->getInt());
}
iffStream->closeChunk('ECNT');
iffStream->openChunk('ESTR');
int estrSize = iffStream->getInt();
for (int i = 0; i < estrSize; ++i) {
edgeStarts.add(iffStream->getInt());
}
iffStream->closeChunk('ESTR');
iffStream->closeForm('0001');
iffStream->closeForm('PGRF');
connectNodes(pathEdges);
}
void InputLayerItem::connectLayerTo( const LayerItem *layer )
{
foreach( MIMONeuronItem *neuron, layer->neurons() )
connectNodes( m_nodes, neuron->nodes() );
}
GameConsole::GameConsole( Node *parent ) : Node( parent ),
gameThread( new QThread ),
// Global pipeline
microTimer( new MicroTimer ),
remapper( new Remapper ),
sdlManager( new SDLManager ),
sdlUnloader( new SDLUnloader ),
// Dynamic pipeline
audioOutput( new AudioOutput ),
libretroLoader( new LibretroLoader ),
libretroRunner( new LibretroRunner ),
libretroVariableForwarder( new LibretroVariableForwarder ) {
// Move all our stuff to the game thread
audioOutput->moveToThread( gameThread );
libretroLoader->moveToThread( gameThread );
libretroRunner->moveToThread( gameThread );
libretroVariableForwarder->moveToThread( gameThread );
microTimer->moveToThread( gameThread );
remapper->moveToThread( gameThread );
sdlManager->moveToThread( gameThread );
sdlUnloader->moveToThread( gameThread );
gameThread->setObjectName( "Game thread" );
gameThread->start();
// Connect global pipeline (at least the parts that can be connected at this point)
connectNodes( microTimer, sdlManager );
connectNodes( sdlManager, remapper );
connectNodes( remapper, sdlUnloader );
connect( this, &GameConsole::remapperModelChanged, this, [ & ] {
if( remapperModel ) {
qCDebug( phxControl ) << "RemapperModel" << Q_FUNC_INFO << globalPipelineReady();
remapperModel->setRemapper( remapper );
checkIfGlobalPipelineReady();
}
} );
// Connect VariableModel (which lives in QML) to LibretroVariableForwarder as soon as it's set
connect( this, &GameConsole::variableModelChanged, this, [ & ] {
if( variableModel ) {
qCDebug( phxControl ) << "VariableModel" << Q_FUNC_INFO << globalPipelineReady();
variableModel->setForwarder( libretroVariableForwarder );
checkIfGlobalPipelineReady();
}
} );
// Connect GlobalGamepad (which lives in QML) to the global pipeline as soon as it's set
connect( this, &GameConsole::globalGamepadChanged, this, [ & ]() {
if( globalGamepad ) {
qCDebug( phxControl ) << "GlobalGamepad" << Q_FUNC_INFO << globalPipelineReady();
connectNodes( remapper, globalGamepad );
checkIfGlobalPipelineReady();
}
} );
// Connect PhoenixWindow (which lives in QML) to the global pipeline as soon as it's set
connect( this, &GameConsole::phoenixWindowChanged, this, [ & ]() {
if( phoenixWindow ) {
qCDebug( phxControl ) << "PhoenixWindow" << Q_FUNC_INFO << globalPipelineReady();
connectNodes( this, phoenixWindow );
connectNodes( phoenixWindow, microTimer );
checkIfGlobalPipelineReady();
}
} );
// Handle app quitting
connect( QCoreApplication::instance(), &QCoreApplication::aboutToQuit, this, [ = ]() {
qDebug() << "";
qCInfo( phxControl ) << ">>>>>>>> User requested app to close, shutting down (waiting up to 30 seconds)...";
qDebug() << "";
// Tell the pipeline to stop if loaded
if( dynamicPipelineReady() ) {
quitFlag = true;
emit commandOut( Command::Stop, QVariant(), nodeCurrentTime() );
} else {
qCInfo( phxControl ) << "No core loaded";
gameThread->quit();
}
// Wait up to 30 seconds to let the pipeline finish its events
if( gameThread != QThread::currentThread() ) {
gameThread->wait( 30 * 1000 );
gameThread->deleteLater();
}
// Destroy our global pipeline objects *from the bottom up* (depending on core type)
if( source[ "type" ] == QStringLiteral( "libretro" ) ||
pendingPropertyChanges[ "source" ].toMap()[ "type" ] == QStringLiteral( "libretro" ) ) {
deleteLibretro();
}
// Send a second set of delete calls for all other objects (redundant calls will be ignored)
deleteMembers();
qDebug() << "";
qCInfo( phxControl ) << ">>>>>>>> Fully unloaded!";
qDebug() << "";
} );
connect( this, &GameConsole::userDataLocationChanged, this, [ & ] {
emit commandOut( Command::SetUserDataPath, userDataLocation, nodeCurrentTime() );
} );
}
void MIMONeuronItem::connectNeuronTo( const MIMONeuronItem *neuron )
{
connectNodes( m_nodes, neuron->nodes() );
}
void MIMONeuronItem::connectNeuronFrom( const MIMONeuronItem *neuron )
{
connectNodes( neuron->nodes(), m_nodes );
}
PeepHoleOpt::Changed PeepHoleOpt::handleInst_Convert_F2I_D2I(Inst* inst)
{
//
// Inline 'int_value = (int)(float_value or double_value)'
//
Opnd* dst = inst->getOpnd(0);
Opnd* src = inst->getOpnd(2);
Type* srcType = src->getType();
assert(srcType->isSingle() || srcType->isDouble());
assert(dst->getType()->isInt4());
const bool is_dbl = srcType->isDouble();
// Here, we might have to deal with 3 cases with src (_value):
// 1. Unassigned operand - act as if were operating with XMM
// 2. Assigned to FPU - convert to FPU operations, to
// avoid long FPU->mem->XMM chain
// 3. Assigned to XMM - see #1
const bool xmm_way =
!(src->hasAssignedPhysicalLocation() && src->isPlacedIn(OpndKind_FPReg));
if (!xmm_way) {
//TODO: will add FPU later if measurements show it worths trying
return Changed_Nothing;
}
//
//
/*
movss xmm0, val
// presuming the corner cases (NaN, overflow)
// normally happen rare, do conversion first,
// and check for falls later
-- convertNode
cvttss2si eax, xmm0
-- ovfTestNode
// did overflow happen ?
cmp eax, 0x80000000
jne _done // no - go return result
-- testAgainstZeroNode
// test SRC against zero
comiss xmm0, [fp_zero]
// isNaN ?
jp _nan // yes - go load 0
-- testIfBelowNode
// xmm < 0 ?
jb _done // yes - go load MIN_INT. EAX already has it - simply return.
-- loadMaxIntNode
// ok. at this point, XMM is positive and > MAX_INT
// must load MAX_INT which is 0x7fffffff.
// As EAX has 0x80000000, then simply substract 1
sub eax, 1
jmp _done
-- loadZeroNode
_nan:
xor eax, eax
-- nodeNode
_done:
mov result, eax
}
*/
Opnd* fpZeroOpnd = getZeroConst(srcType);
Type* int32type = irManager->getTypeManager().getInt32Type();
Opnd* oneOpnd = irManager->newImmOpnd(int32type, 1);
Opnd* intZeroOpnd = getIntZeroConst();
// 0x8..0 here is not the INT_MIN, but comes from the COMISS
// opcode description instead.
Opnd* minIntOpnd = irManager->newImmOpnd(int32type, 0x80000000);
newSubGFG();
Node* entryNode = getSubCfgEntryNode();
Node* convertNode = newBB();
Node* ovfTestNode = newBB();
Node* testAgainstZeroNode = newBB();
Node* testIfBelowNode = newBB();
Node* loadMaxIntNode = newBB();
Node* loadZeroNode = newBB();
Node* doneNode = newBB();
//
// presuming the corner cases (NaN, overflow)
// normally happen rare, do conversion first,
// and check for falls later
//
connectNodes(entryNode, convertNode);
//
// convert
//
setCurrentNode(convertNode) ;
Mnemonic mn_cvt = is_dbl ? Mnemonic_CVTTSD2SI : Mnemonic_CVTTSS2SI;
/*cvttss2si r32, xmm*/ newInst(mn_cvt, 1, dst, src);
connectNodeTo(ovfTestNode);
setCurrentNode(NULL);
//
// check whether overflow happened
//
setCurrentNode(ovfTestNode);
/*cmp r32, MIN_INT*/ newInst(Mnemonic_CMP, dst, minIntOpnd);
/*jne _done */ newBranch(Mnemonic_JNE, doneNode, testAgainstZeroNode, 0.9, 0.1);
//
setCurrentNode(NULL);
// test SRC against zero
//
setCurrentNode(testAgainstZeroNode);
Mnemonic mn_cmp = is_dbl ? Mnemonic_UCOMISD : Mnemonic_UCOMISS;
/*comiss src, 0. */ newInst(mn_cmp, src, fpZeroOpnd);
/*jp _nan:result=0*/ newBranch(Mnemonic_JP, loadZeroNode, testIfBelowNode);
setCurrentNode(NULL);
//
//
//
setCurrentNode(loadZeroNode);
/*mov r32, 0*/ newInst(Mnemonic_MOV, dst, intZeroOpnd);
/*jmp _done*/ connectNodeTo(doneNode);
setCurrentNode(NULL);
//
// test if we have a huge negative in SRC
//
setCurrentNode(testIfBelowNode);
/*jb _done:*/ newBranch(Mnemonic_JB, doneNode, loadMaxIntNode);
setCurrentNode(NULL);
//
//
//
setCurrentNode(loadMaxIntNode);
/* sub dst, 1*/ newInst(Mnemonic_SUB, dst, oneOpnd);
connectNodeTo(doneNode);
setCurrentNode(NULL);
//
connectNodes(doneNode, getSubCfgReturnNode());
//
propagateSubCFG(inst);
return Changed_Node;
}
// --------------------------------------------------------------------------------------------
MStatus polyModifierCmd::doModifyPoly()
// --------------------------------------------------------------------------------------------
{
MStatus status = MS::kFailure;
if( isCommandDataValid() )
{
// Get the state of the polyMesh
//
collectNodeState();
if( !fHasHistory && !fHasRecordHistory )
{
MObject meshNode = fDagPath.node();
// Pre-process the mesh - Cache old mesh (including tweaks, if applicable)
//
cacheMeshData();
cacheMeshTweaks();
// Call the directModifier
//
status = directModifier( meshNode );
}
else
{
MObject modifierNode;
createModifierNode( modifierNode );
initModifierNode( modifierNode );
status = connectNodes( modifierNode );
MFnDependencyNode depNodeFn(modifierNode);
MString newName;
getModifierUINodeName(newName);
depNodeFn.setName(newName);
//jetzt noch die customAttributes nonKeyable machen
//koennte zu fehlern führen bei undo und redo ->tuts aber nicht :)
if(createAnimCurves)
{//diese Attribute koennen nur gesetzt werden, wenn eine BPTNode erstellt wird
depNodeFn.findPlug("customSlFalloff").setKeyable(false);
}
// Selection vorher frei machen, weil unter umstnden noch eine parameter gewhlt war, welcher
// dann verhindert, dass die Channelbox den neuen anzeigt
//
MGlobal::clearSelectionList();
//jetzt die Node auf die SelectionList setzen/hinzufügen
MGlobal::select(modifierNode);
}
}
return status;
}
void SubCfgBuilderUtils::connectNodeTo(Node* to)
{
connectNodes(m_currNode, to);
}
