void State_t::LoadFromXmlNode(CTextNode& node, Agent* pAgent)
{
if (pAgent)
{
CSerializationID membersId("members");
ISerializableNode* membersNode = node.findChild(membersId);
pAgent->Load(membersNode);
}
this->m_vars.Load(&node);
CSerializationID btNodeId("BehaviorTree");
ISerializableNode* btNode = node.findChild(btNodeId);
if (btNode)
{
CSerializationID sourceId("source");
behaviac::string btName;
if (btNode->getAttr(sourceId, btName))
{
BEHAVIAC_DELETE this->m_bt;
this->m_bt = Workspace::GetInstance()->CreateBehaviorTreeTask(btName.c_str());
}
CSerializationID nodeId("node");
ISerializableNode* n = btNode->findChild(nodeId);
BEHAVIAC_ASSERT(n);
this->m_bt->Load(n);
}
}
N2npNodeId LocalRelay::attachNode(LocalNode *node)
{
std::string nodeName;
// Make this thread-safe
this->nodesMutex.lock();
try {
// Compute a new Unique ID
std::ostringstream nodeNameStream;
nodeNameStream << (++this->lastNodeId);
nodeName = nodeNameStream.str();
} catch (Exception e) {
this->nodesMutex.unlock();
throw e;
}
this->nodesMutex.unlock();
N2npNodeId nodeId(nodeName.c_str(), this->addr);
// This may not happen, as this is an auto-increment index
EPYX_ASSERT(this->nodes.count(nodeName) == 0);
this->nodesMutex.lock();
this->nodes.insert(make_pair(nodeName, node));
this->nodesMutex.unlock();
return nodeId;
}
NodeInfoSPtr FailoverManagerStoreTest::CreateNodeInfo(int64 low)
{
NodeId nodeId(LargeInteger(0, low));
NodeInstance nodeInstance(nodeId, 0);
Common::FabricVersionInstance versionInstance;
std::wstring defaultNodeUpgradeDomainId;
std::vector<Common::Uri> defaultNodeFaultDomainIds;
std::map<std::wstring, std::wstring> defaultNodeProperties;
std::map<std::wstring, uint> defaultCapacityRatios;
std::map<std::wstring, uint> defaultCapacities;
std::wstring defaultNodeName;
std::wstring defaultNodeType;
std::wstring defaultIpAddressOrFQDN;
ULONG defaultClientConnectionPort = 0;
NodeDescription nodeDescription(
versionInstance,
defaultNodeUpgradeDomainId,
defaultNodeFaultDomainIds,
defaultNodeProperties,
defaultCapacityRatios,
defaultCapacities,
defaultNodeName,
defaultNodeType,
defaultIpAddressOrFQDN,
defaultClientConnectionPort);
return make_shared<NodeInfo>(nodeInstance, move(nodeDescription), true);
}
bool ViewCollection::unBindShader(GLuint shaderId)
{
bool result= false;
if (m_ShadedPointerViewInstanceHash.contains(shaderId))
{
// Find node which use the shader
std::vector<unsigned int> nodeId(m_ShaderGroup.keys(shaderId));
// Move these node in the standard hash and remove them from shader group
PointerViewInstanceHash* pShaderNodeHash= m_ShadedPointerViewInstanceHash.take(shaderId);
for (int i= 0; i < nodeId.size(); ++i)
{
const unsigned int id= nodeId[i];
ViewInstance* pInstance= pShaderNodeHash->value(id);
if (!pInstance->isSelected())
{
m_MainInstances.insert(id, pInstance);
}
else
{
m_SelectedInstances.insert(id, pInstance);
}
m_ShaderGroup.remove(id);
}
pShaderNodeHash->clear();
delete pShaderNodeHash;
result= true;
}
Q_ASSERT(!m_ShadedPointerViewInstanceHash.contains(shaderId));
return result;
}
FlowPart* FlowPart::outputPart(const QString& internalNodeId) {
Node *node = m_pFlowCodeDocument->nodeWithID(nodeId(internalNodeId));
FPNode *fpnode = dynamic_cast<FPNode*>(node);
// FIXME dynamic_cast used to replace fpnode::type() call
if (!fpnode || (dynamic_cast<InputFlowNode*>(fpnode) != 0))
// if ( !fpnode || fpnode->type() == Node::fp_in )
return 0l;
return fpnode->outputFlowPart();
}
//--------------------------------------------------------------------------//
// LCOV_EXCL_START :dpm
void CRUTask::DumpGraphNode(CDSString &to)
{
char fromChr[10];
sprintf(fromChr,"%d",GetId());
CDSString nodeId(fromChr);
to += "\t\t" + nodeId;
to += " [style=filled,";
to += "label= \"" + nodeId + "." + GetTaskName() + "\"";
to += ",color=";
switch (GetType())
{
case REFRESH:
{
to += "red";
break;
}
case TABLE_SYNC:
{
to += "lightgrey";
break;
}
case DUP_ELIM:
{
to += "violet";
break;
}
case LOG_CLEANUP:
{
to += "yellowgreen";
break;
}
case RC_RELEASE:
{
to += "pink";
break;
}
case EMP_CHECK:
{
to += "gold";
break;
}
case LOCK_EQUIV_SET:
{
to += "yellow";
break;
}
default:
RUASSERT(FALSE);
}
to += "];\n";
}
std::string Environment::nodeId() {
NodeId id;
nodeId(id);
char result[18];
std::sprintf(result, "%02x:%02x:%02x:%02x:%02x:%02x",
id[0],
id[1],
id[2],
id[3],
id[4],
id[5]);
return std::string(result);
}
void SingeChildTask::save(ISerializableNode* node) const
{
super::save(node);
if (this->m_status != BT_INVALID)
{
if (this->m_root)
{
CSerializationID nodeId("root");
ISerializableNode* chidlNode = node->newChild(nodeId);
this->m_root->save(chidlNode);
}
}
}
LODNodeSample deserializeDataSample( const ::zeq::Event& event )
{
LODNodeSample sample;
sample.first = event.getType();
auto data = GetLODNode( event.getData( ));
sample.second = livre::LODNode(
NodeId( data->nodeId( )),
_deserializeVector3< int32_t >( data->blockSize( )),
Boxf( _deserializeVector3< float >( data->worldBoxMin( )),
_deserializeVector3< float >( data->worldBoxMax( ))));
return sample;
}
void BehaviorTreeTask::Save(ISerializableNode* node) const
{
CSerializationID btId("BehaviorTree");
ISerializableNode* btNodeRoot = node->newChild(btId);
BEHAVIAC_ASSERT(BehaviorTree::DynamicCast(this->GetNode()));
BehaviorTree* bt = (BehaviorTree*)this->GetNode();
CSerializationID sourceId("source");
btNodeRoot->setAttr(sourceId, bt->GetName());
CSerializationID nodeId("node");
ISerializableNode* btNode = btNodeRoot->newChild(nodeId);
this->save(btNode);
}
const QString
SipInfo::toJson() const
{
// build variant map
QVariantMap m;
m["visible"] = isVisible();
if ( isVisible() )
{
m["ip"] = host();
m["port"] = port();
m["key"] = key();
m["uniqname"] = nodeId();
}
// serialize
QJson::Serializer serializer;
QByteArray ba = serializer.serialize( m );
return QString::fromLatin1( ba );
}
void CompositeTask::save(ISerializableNode* node) const
{
super::save(node);
if (this->m_status != BT_INVALID)
{
CSerializationID attrId("activeChildIndex");
node->setAttr(attrId, this->m_activeChildIndex);
BehaviorTasks_t::size_type count = this->m_children.size();
for (BehaviorTasks_t::size_type i = 0; i < count; ++i)
{
BehaviorTask* childTask = this->m_children[i];
CSerializationID nodeId("node");
ISerializableNode* chidlNode = node->newChild(nodeId);
childTask->save(chidlNode);
}
}
}
void NodeGraphNodeConnector::visit( he::io::StructuredVisitor* const visitor )
{
if (m_Type == eNodeGraphNodeConnectorType_Input)
{
if (visitor->enterNode(m_Id))
{
if (visitor->isReading())
disconnectAll();
visitor->visitCustomList<NodeGraphNodeConnector*>(he::HEFS::strConnections, m_Connections,
[this](he::io::StructuredVisitor* visitor, size_t /*index*/, NodeGraphNodeConnector*& val)
{
he::Guid nodeId(val->m_Parent->getParent()->getGuid());
if (visitor->visit(HSFS::strNodeID, nodeId))
{
he::FixedString connectionId(val->getId());
if (visitor->visit(HSFS::strConnectionID, connectionId))
{
if (visitor->isReading())
{
NodeGraphNode* node(m_Parent->getParent()->getParent()->getNode(nodeId));
if (node)
{
node->getAttachments().forEach([this, &connectionId](NodeGraphNodeAttachment* att)
{
NodeGraphNodeConnector* connector(att->getNodeConnector());
if (connector && connector->getId() == connectionId)
{
connector->connect(this);
}
});
}
}
}
}
});
visitor->exitNode(m_Id);
}
}
}
void
ChromiumCDMProxy::Init(PromiseId aPromiseId,
const nsAString& aOrigin,
const nsAString& aTopLevelOrigin,
const nsAString& aGMPName)
{
MOZ_ASSERT(NS_IsMainThread());
NS_ENSURE_TRUE_VOID(!mKeys.IsNull());
EME_LOG(
"ChromiumCDMProxy::Init (pid=%u, origin=%s, topLevelOrigin=%s, gmp=%s)",
aPromiseId,
NS_ConvertUTF16toUTF8(aOrigin).get(),
NS_ConvertUTF16toUTF8(aTopLevelOrigin).get(),
NS_ConvertUTF16toUTF8(aGMPName).get());
if (!mGMPThread) {
RejectPromise(
aPromiseId,
NS_ERROR_DOM_INVALID_STATE_ERR,
NS_LITERAL_CSTRING("Couldn't get GMP thread ChromiumCDMProxy::Init"));
return;
}
if (aGMPName.IsEmpty()) {
RejectPromise(aPromiseId,
NS_ERROR_DOM_INVALID_STATE_ERR,
nsPrintfCString("Unknown GMP for keysystem '%s'",
NS_ConvertUTF16toUTF8(mKeySystem).get()));
return;
}
gmp::NodeId nodeId(aOrigin, aTopLevelOrigin, aGMPName);
RefPtr<AbstractThread> thread = mGMPThread;
RefPtr<GMPCrashHelper> helper(mCrashHelper);
RefPtr<ChromiumCDMProxy> self(this);
nsCString keySystem = NS_ConvertUTF16toUTF8(mKeySystem);
RefPtr<Runnable> task(NS_NewRunnableFunction(
[self, nodeId, helper, aPromiseId, thread, keySystem]() -> void {
MOZ_ASSERT(self->IsOnOwnerThread());
RefPtr<gmp::GeckoMediaPluginService> service =
gmp::GeckoMediaPluginService::GetGeckoMediaPluginService();
if (!service) {
self->RejectPromise(
aPromiseId,
NS_ERROR_DOM_INVALID_STATE_ERR,
NS_LITERAL_CSTRING(
"Couldn't get GeckoMediaPluginService in ChromiumCDMProxy::Init"));
return;
}
RefPtr<gmp::GetCDMParentPromise> promise =
service->GetCDM(nodeId, { keySystem }, helper);
promise->Then(
thread,
__func__,
[self, aPromiseId](RefPtr<gmp::ChromiumCDMParent> cdm) {
if (!cdm->Init(self,
self->mDistinctiveIdentifierRequired,
self->mPersistentStateRequired)) {
self->RejectPromise(aPromiseId,
NS_ERROR_FAILURE,
NS_LITERAL_CSTRING("GetCDM failed."));
return;
}
{
MutexAutoLock lock(self->mCDMMutex);
self->mCDM = cdm;
}
self->OnCDMCreated(aPromiseId);
},
[self, aPromiseId](nsresult rv) {
self->RejectPromise(
aPromiseId, NS_ERROR_FAILURE, NS_LITERAL_CSTRING("GetCDM failed."));
});
}));
mGMPThread->Dispatch(task.forget());
}
Node *CNItem::childNode( const QString &childId )
{
return p_icnDocument->nodeWithID( nodeId(childId) );
}
NodeId RfidReaderMacData::getSenderId() const
{
NodeId nodeId(m_senderId, m_senderIdBytes);
return nodeId;
}
NodeId RfidReaderMacData::getReceiverId() const
{
NodeId nodeId(m_receiverId, m_receiverIdBytes);
return nodeId;
}
/*
* Places traces in a particular linear order
* to maximize sequential transition.
* A good way to achieve this is to construct a
* higher level graph, using traces as nodes.
* An arc is added between traces whose head
* and tail are connected by a transition.
*/
static void
PlaceTraces (FGraph graph)
{
FGraph new_graph;
Node node, current;
Node node_order[MAX_GRAPH_SIZE];
int i, size;
#ifndef SECOND_LEVEL_SELECT
int min_trace_id, max_trace_id;
#endif
if (graph->nodes == 0)
return;
#ifdef SECOND_LEVEL_SELECT
new_graph = NewGraph (); /* create a high level graph */
for (node = graph->nodes; node != 0; node = nextNode (node))
{
int trace_id;
Node temp;
trace_id = nodeType (node);
temp = FindNode (new_graph, trace_id);
if (temp == 0)
{
temp = NewNode ();
nodeId (temp) = trace_id;
AddNode (new_graph, temp);
}
if (node == graph->root)
new_graph->root = temp;
}
for (node = graph->nodes; node != 0; node = nextNode (node))
{
Arc arc;
if (!(nodeStatus (node) & TRACE_TAIL))
continue;
/*
* Find transitions to the head of other traces.
* Inner loop back-edge is not considered.
*/
for (arc = destinationArcs (node); arc != 0; arc = nextArc (arc))
{
Node dest;
dest = destinationNode (arc);
if ((nodeType (dest) != nodeType (node)) &&
(nodeStatus (dest) & TRACE_HEAD))
{
/*
* Add a link (trace[node]->trace[dest])
*/
int src_trace_id, dest_trace_id;
Node src_node, dest_node;
Arc ar;
src_trace_id = nodeType (node);
dest_trace_id = nodeType (dest);
src_node = FindNode (new_graph, src_trace_id);
dest_node = FindNode (new_graph, dest_trace_id);
ConnectNodes (src_node, dest_node, 0);
ar = FindSrcArc (src_node, dest_node, 0);
arcWeight (ar) = arcWeight (arc);
ar = FindDestArc (src_node, dest_node, 0);
arcWeight (ar) = arcWeight (arc);
}
}
}
/*
* Simply assign the node weights to max(connecting arc)
*/
for (node = new_graph->nodes; node != 0; node = nextNode (node))
{
Arc arc;
double max = 1.0;
for (arc = sourceArcs (node); arc != 0; arc = nextArc (arc))
if (arcWeight (arc) > max)
max = arcWeight (arc);
for (arc = destinationArcs (node); arc != 0; arc = nextArc (arc))
if (arcWeight (arc) > max)
max = arcWeight (arc);
nodeWeight (node) = max;
}
/*
* Apply SelectTraces() on the new graph.
* Use SELECT_BY_ARC_WEIGHT
*/
best_successor_of = best_successor_2;
best_predecessor_of = best_predecessor_2;
SelectTraces (new_graph);
/*
* Determine the best sequential order of the traces.
* Essentially, we have the original problem again.
* However, after the second level trace selection,
* we expect most of the sequential transitions are
* captured. A naive heuristic is sufficient here.
* The sequential order must start with the ENTRY trace.
*/
#ifdef DEBUG_TRACE1
printf ("... second level graph = \n");
WriteGraph ("stdout", new_graph);
#endif
/*
* Clear the valid bit of all nodes.
*/
for (node = new_graph->nodes; node != 0; node = nextNode (node))
{
nodeStatus (node) &= ~VISITED;
}
/*
* Start from the root node.
*/
size = 0;
current = new_graph->root;
while (current != 0)
{
Node ptr;
Arc ar;
int trace_id;
if (nodeStatus (current) & VISITED)
Punt ("PlaceTraces: reached a VISITed node");
nodeStatus (current) |= VISITED;
trace_id = nodeId (current);
/*
* Layout the trace.
*/
for (ptr = graph->nodes; ptr != 0; ptr = nextNode (ptr))
{
if ((nodeType (ptr) == trace_id) && (nodeStatus (ptr) & TRACE_HEAD))
break; /* find the starting node of the trace */
}
if (ptr == 0)
Punt ("PlaceTraces: internal error (1)");
while (ptr != 0)
{
Arc next;
node_order[size++] = ptr;
/*
* Follow the in-trace transition.
*/
if (nodeStatus (ptr) & TRACE_TAIL)
break; /* reached the end of trace */
for (next = destinationArcs (ptr); next != 0; next = nextArc (next))
{
if (arcType (next) == nodeType (ptr))
break; /* find a in-trace transition */
}
if (next == 0)
break;
ptr = destinationNode (next);
}
/*
* Select the next trace to be visited next.
* Follow an in-trace transition (of the higher level
* graph) if possible.
*/
for (ar = destinationArcs (current); ar != 0; ar = nextArc (ar))
{
if (arcType (ar) == nodeType (current))
break; /* find an in-trace transition */
}
if (ar != 0)
{ /* transition is still in-trace */
current = destinationNode (ar);
}
else
{ /* must find another trace */
/*
* Find the most important trace left.
*/
Node nn, best;
best = 0;
for (nn = new_graph->nodes; nn != 0; nn = nextNode (nn))
{
if (nodeStatus (nn) & VISITED)
continue; /* skip over VISITED nodes */
if (!(nodeStatus (nn) & TRACE_HEAD))
continue; /* skip over non-trace headers */
if (best == 0)
{
best = nn;
}
else
{
if (nodeWeight (nn) > nodeWeight (best))
best = nn;
}
}
current = best; /* go out of trace if best=0 */
}
}
/*
* Make sure that all traces have been layout.
*/
for (node = new_graph->nodes; node != 0; node = nextNode (node))
{
if (!(nodeStatus (node) & VISITED))
{
Punt ("PlaceTraces: missing some traces");
}
}
/*
* No longer need the higher level graph.
*/
FreeGraph (&new_graph); /* destroy the high level graph */
#else
min_trace_id = 0x1FFFFFFF;
max_trace_id = -0x1FFFFFFF;
for (node = graph->nodes; node != 0; node = nextNode (node))
{
int trace_id;
trace_id = nodeType (node);
if (trace_id > max_trace_id)
max_trace_id = trace_id;
if (trace_id < min_trace_id)
min_trace_id = trace_id;
}
for (node = graph->nodes; node != 0; node = nextNode (node))
{
nodeStatus (node) &= ~VISITED;
}
size = 0;
for (i = min_trace_id; i <= max_trace_id; i++)
{
Node ptr;
/*
* 1. find the trace header.
*/
for (ptr = graph->nodes; ptr != 0; ptr = nextNode (ptr))
{
if ((nodeType (ptr) == i) & ((nodeStatus (ptr) & TRACE_HEAD) != 0))
break;
}
if (ptr == 0)
continue;
while (ptr != 0)
{
Arc next;
if (nodeStatus (ptr) & VISITED)
Punt ("PlaceTraces: visited a node twice");
nodeStatus (ptr) |= VISITED;
node_order[size++] = ptr;
if (nodeStatus (ptr) & TRACE_TAIL)
break;
for (next = destinationArcs (ptr); next != 0; next = nextArc (next))
{
if (arcType (next) == nodeType (ptr))
break;
}
if (next == 0)
break;
ptr = destinationNode (next);
}
}
/*
* Make sure that all traces have been layout.
*/
for (node = graph->nodes; node != 0; node = nextNode (node))
{
if (!(nodeStatus (node) & VISITED))
{
fprintf (stderr, "min trace id = %d\n", min_trace_id);
fprintf (stderr, "max trace id = %d\n", max_trace_id);
fprintf (stderr, "size = %d\n", size);
WriteGraph ("stderr", graph);
Punt ("PlaceTraces: missing some traces");
}
}
#endif
/*
* Rearrange the order of nodes, according to the
* node_order[] order.
*/
node_order[size] = 0;
for (i = 0; i < size; i++)
{
nextNode (node_order[i]) = node_order[i + 1];
}
graph->nodes = node_order[0];
}
