Files
Sourcetrail/src/lib/component/controller/GraphController.cpp
T
Eberhard GrätherandGitHub 3950da7999 src: Rename aggregation edge to bundled edges (#1051)
The term aggregation is misleading. Bundled edges is a better definition for this type of edge.

closes #962
2020-06-29 19:41:12 +02:00

2752 lines
69 KiB
C++

#include "GraphController.h"
#include <set>
#include "AccessKind.h"
#include "Application.h"
#include "ApplicationSettings.h"
#include "BucketLayouter.h"
#include "Graph.h"
#include "GraphView.h"
#include "GraphViewStyle.h"
#include "ListLayouter.h"
#include "MessageActivateNodes.h"
#include "MessageStatus.h"
#include "StorageAccess.h"
#include "TokenComponentAccess.h"
#include "TokenComponentFilePath.h"
#include "TokenComponentInheritanceChain.h"
#include "TrailLayouter.h"
#include "logging.h"
#include "tracing.h"
#include "utility.h"
#include "utilityString.h"
GraphController::GraphController(StorageAccess* storageAccess)
: m_storageAccess(storageAccess), m_useBezierEdges(false)
{
}
Id GraphController::getSchedulerId() const
{
return Controller::getTabId();
}
void GraphController::handleMessage(MessageActivateErrors* message)
{
clear();
}
void GraphController::handleMessage(MessageActivateFullTextSearch* message)
{
clear();
}
void GraphController::handleMessage(MessageActivateLegend* message)
{
clear();
createLegendGraph();
layoutNesting();
m_showsLegend = true;
GraphView::GraphParams params;
params.scrollToTop = true;
buildGraph(message, params);
}
void GraphController::handleMessage(MessageActivateOverview* message)
{
TRACE("graph all");
clear();
if (message->acceptedNodeTypes != NodeTypeSet::all())
{
createDummyGraphAndSetActiveAndVisibility(
std::vector<Id>(),
m_storageAccess->getGraphForNodeTypes(message->acceptedNodeTypes),
false);
addCharacterIndex();
layoutNesting();
layoutList();
}
else
{
createDummyGraphAndSetActiveAndVisibility(
std::vector<Id>(), m_storageAccess->getGraphForAll(), false);
bundleNodesByType();
layoutNesting();
assignBundleIds();
layoutGraph();
}
GraphView::GraphParams params;
params.scrollToTop = message->acceptedNodeTypes != NodeTypeSet::all();
buildGraph(message, params);
}
void GraphController::handleMessage(MessageActivateTokens* message)
{
TRACE("graph activate");
if (message->isEdge || message->keepContent())
{
m_activeEdgeIds = message->tokenIds;
if (message->isBundledEdges) // only on redo
{
m_activeEdgeIds.clear();
}
setActiveAndVisibility(utility::concat(m_activeNodeIds, m_activeEdgeIds));
if (message->isReplayed())
{
return;
}
Id edgeId = 0;
if (message->isEdge && message->tokenIds.size() == 1)
{
edgeId = message->tokenIds[0];
}
getView()->activateEdge(edgeId);
return;
}
else if (message->isBundledEdges)
{
m_activeNodeIds.clear();
m_activeEdgeIds = message->tokenIds;
}
else
{
m_activeNodeIds = message->tokenIds;
m_activeEdgeIds.clear();
}
if (!m_activeNodeIds.size() && !m_activeEdgeIds.size())
{
clear();
return;
}
std::vector<Id> tokenIds = utility::concat(m_activeNodeIds, m_activeEdgeIds);
bool isNamespace = false;
std::shared_ptr<Graph> graph = m_storageAccess->getGraphForActiveTokenIds(
tokenIds, getExpandedNodeIds(), &isNamespace);
createDummyGraphAndSetActiveAndVisibility(tokenIds, graph, !message->isFromSearch);
if (isNamespace)
{
addCharacterIndex();
DummyNode* group = groupAllNodes(GroupType::NAMESPACE, tokenIds[0]);
group->groupLayout = GroupLayout::LIST;
if (!group->name.size())
{
group->name = m_storageAccess->getNameHierarchyForNodeId(tokenIds[0]).getQualifiedName();
group->tokenId = tokenIds[0];
}
layoutNesting();
layoutList();
}
else
{
if (m_activeNodeIds.size() == 1)
{
bundleNodes();
}
else if (message->isBundledEdges)
{
bool isInheritanceChain = true;
for (const auto& edge: m_dummyEdges)
{
if (!edge->data->isType(Edge::EDGE_INHERITANCE))
{
isInheritanceChain = false;
break;
}
}
if (isInheritanceChain)
{
for (auto& node: m_dummyNodes)
{
node->bundleInfo.layoutVertical = true;
}
}
m_useBezierEdges = !isInheritanceChain;
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
edge->active = false;
}
}
groupNodesByParents(getView()->getGrouping());
layoutNesting();
layoutGraph(true);
assignBundleIds();
}
GraphView::GraphParams params;
params.centerActiveNode = !isNamespace;
params.scrollToTop = isNamespace;
buildGraph(message, params);
}
void GraphController::handleMessage(MessageActivateTrail* message)
{
TRACE("trail activate");
MessageStatus(L"Retrieving graph data", false, true).dispatch();
m_activeEdgeIds.clear();
std::shared_ptr<Graph> graph = m_storageAccess->getGraphForTrail(
message->originId,
message->targetId,
message->nodeTypes,
message->edgeTypes,
message->nodeNonIndexed,
message->depth,
true /* !message->custom || (message->originId && message->targetId) */);
// remove non-indexed files from include graph if indexed file is origin
if (!message->custom && message->edgeTypes & Edge::EDGE_INCLUDE)
{
Node* fileNode = graph->getNodeById(message->originId ? message->originId : message->targetId);
if (fileNode && fileNode->isDefined())
{
std::vector<Node*> nodesToRemove;
graph->forEachNode([&nodesToRemove](Node* node) {
if (!node->isDefined())
{
nodesToRemove.push_back(node);
}
});
for (Node* node: nodesToRemove)
{
graph->removeNode(node);
}
}
}
if (message->originId && message->targetId && !graph->getNodeById(message->targetId))
{
MessageStatus(L"No trail graph found.", true).dispatch();
Application::getInstance()->handleDialog(
L"No custom trail was found between the specified symbols with the specified "
L"parameters.",
{L"Ok"});
}
else if (graph->getNodeCount() > 1000)
{
int r = Application::getInstance()->handleDialog(
L"Warning!\n\nThe graph will contain " + std::to_wstring(graph->getNodeCount()) +
" nodes. "
L"Layouting and drawing might take a while and the resulting graph could look "
L"confusing. Please "
L"consider reducing graph depth with the slider on the left.\n\n"
L"Do you want to proceed?",
{L"Yes", L"No"});
if (r == 1)
{
MessageStatus(L"Aborted graph display").dispatch();
return;
}
}
createDummyGraph(graph);
m_graph->setTrailMode(message->horizontalLayout ? Graph::TRAIL_HORIZONTAL : Graph::TRAIL_VERTICAL);
m_graph->setHasTrailOrigin(message->originId);
m_activeNodeIds = {message->originId ? message->originId : message->targetId};
setActive(m_activeNodeIds, true);
setVisibility(true);
MessageStatus(L"Layouting graph", false, true).dispatch();
if (!message->custom && message->edgeTypes & Edge::EDGE_INHERITANCE)
{
groupTrailNodes(GroupType::INHERITANCE);
}
layoutNesting();
layoutTrail(message->horizontalLayout, message->originId);
if (message->originId && message->targetId)
{
DummyNode* targetNode = getDummyGraphNodeById(message->targetId).get();
if (targetNode)
{
targetNode->active = true;
}
}
MessageStatus(L"Displaying graph", false, true).dispatch();
GraphView::GraphParams params;
params.centerActiveNode = message->isLast();
buildGraph(message, params);
}
void GraphController::handleMessage(MessageActivateTrailEdge* message)
{
TRACE("trail edge activate");
m_activeEdgeIds = message->edgeIds;
setVisibility(setActive(utility::concat(m_activeNodeIds, m_activeEdgeIds), true));
getView()->activateEdge(message->edgeIds.back());
}
void GraphController::handleMessage(MessageDeactivateEdge* message)
{
TRACE("edge deactivate");
m_activeEdgeIds.clear();
setActive(utility::concat(m_activeNodeIds, m_activeEdgeIds), false);
getView()->activateEdge(0);
}
void GraphController::handleMessage(MessageFocusChanged* message)
{
if (message->isReplayed() && message->isFromGraph())
{
m_tokenIdToFocus = message->tokenOrLocationId;
}
}
void GraphController::handleMessage(MessageFlushUpdates* message)
{
GraphView::GraphParams params;
params.centerActiveNode = true;
params.animatedTransition = !message->keepContent();
buildGraph(message, params);
}
void GraphController::handleMessage(MessageScrollGraph* message)
{
if (message->isReplayed())
{
getView()->scrollToValues(message->xValue, message->yValue);
}
}
void GraphController::handleMessage(MessageFocusIn* message)
{
getView()->coFocusTokenIds(message->tokenIds);
}
void GraphController::handleMessage(MessageFocusOut* message)
{
getView()->deCoFocusTokenIds(message->tokenIds);
}
void GraphController::handleMessage(MessageGraphNodeBundleSplit* message)
{
std::wstring name;
if (m_dummyNodes.size() == 1 && m_dummyNodes[0]->isGroupNode())
{
name = m_dummyNodes[0]->name;
std::shared_ptr<DummyNode> groupNode = m_dummyNodes[0];
m_dummyNodes = groupNode->subNodes;
}
for (size_t i = 0; i < m_dummyNodes.size(); i++)
{
DummyNode* node = m_dummyNodes[i].get();
if ((node->isBundleNode() || node->isGroupNode()) && node->tokenId == message->bundleId)
{
if (!name.size())
{
name = node->name;
}
std::vector<std::shared_ptr<DummyNode>> nodes;
if (node->isBundleNode())
{
nodes = std::vector<std::shared_ptr<DummyNode>>(
node->bundledNodes.begin(), node->bundledNodes.end());
}
else if (node->isGroupNode())
{
nodes = node->subNodes;
std::set<Id> hiddenEdgeIds(node->hiddenEdgeIds.begin(), node->hiddenEdgeIds.end());
for (std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
if (edge->ownerId == node->tokenId || edge->targetId == node->tokenId ||
(edge->data && hiddenEdgeIds.find(edge->data->getId()) != hiddenEdgeIds.end()))
{
edge->hidden = false;
}
}
m_topLevelAncestorIds.erase(node->tokenId);
for (const std::shared_ptr<DummyNode>& subNode: nodes)
{
m_topLevelAncestorIds[subNode->tokenId] = subNode->tokenId;
}
}
if (message->removeOtherNodes)
{
m_dummyNodes = nodes;
}
else
{
m_dummyNodes.insert(m_dummyNodes.begin() + i + 1, nodes.begin(), nodes.end());
m_dummyNodes.erase(m_dummyNodes.begin() + i);
}
break;
}
}
for (size_t i = 0; i < m_dummyEdges.size(); i++)
{
DummyEdge* edge = m_dummyEdges[i].get();
if (!edge->data && edge->targetId == message->bundleId)
{
m_dummyEdges.erase(m_dummyEdges.begin() + i);
break;
}
}
GraphView::GraphParams params;
params.scrollToTop = message->layoutToList;
relayoutGraph(message, params, message->layoutToList, name);
}
void GraphController::handleMessage(MessageGraphNodeExpand* message)
{
if (message->ignoreIfNotReplayed && !message->isReplayed())
{
return;
}
if (m_graph && m_graph->getTrailMode() != Graph::TRAIL_NONE)
{
if (!message->isReplayed())
{
MessageActivateNodes(message->tokenId).dispatch();
}
return;
}
Id nodeId = message->tokenId;
DummyNode* dummyNode = getDummyGraphNodeById(nodeId).get();
if (dummyNode)
{
dummyNode->expanded = message->expand;
if (message->expand && dummyNode->hasMissingChildNodes())
{
std::shared_ptr<Graph> childGraph = m_storageAccess->getGraphForChildrenOfNodeId(nodeId);
childGraph->getNodeById(nodeId)->forEachEdgeOfType(
Edge::EDGE_MEMBER, [this](Edge* edge) { m_graph->addEdgeAsPlainCopy(edge); });
Node* node = m_graph->getNodeById(nodeId);
std::vector<std::shared_ptr<DummyNode>> newDummyNodes = createDummyNodeTopDown(
node, node->getLastParentNode()->getId());
if (newDummyNodes.size() != 1)
{
LOG_ERROR("Wrong amount of dummy nodes created");
return;
}
std::shared_ptr<DummyNode> newDummyNode = newDummyNodes[0];
// replace newer dummy graph nodes with the old ones. Nodes will have the correct
// sorting after that.
newDummyNode->replaceSubGraphNodes(dummyNode->getSubGraphNodes());
// move all newer and older dummy graph nodes into the old dummy node
dummyNode->replaceAccessNodes(newDummyNode->getAccessNodes());
if (!dummyNode->active && message->expand)
{
for (size_t i = 0, l = m_dummyEdges.size(); i < l; i++)
{
std::shared_ptr<DummyEdge> edge = m_dummyEdges[i];
if (edge && edge->data && edge->data->isType(Edge::EDGE_BUNDLED_EDGES) &&
(edge->targetId == dummyNode->tokenId || edge->ownerId == dummyNode->tokenId))
{
std::vector<Id> bundledEdgesIds = utility::toVector<Id>(
edge->data->getComponent<TokenComponentBundledEdges>()->getBundledEdgesIds());
if (m_graph->getEdgeById(bundledEdgesIds[0]) != nullptr)
{
break;
}
std::shared_ptr<Graph> bundledEdgesGraph =
m_storageAccess->getGraphForActiveTokenIds(
bundledEdgesIds, std::vector<Id>());
bundledEdgesGraph->forEachEdge([this](Edge* e) {
if (!e->isType(Edge::EDGE_MEMBER))
{
m_dummyEdges.push_back(std::make_shared<DummyEdge>(
e->getFrom()->getId(),
e->getTo()->getId(),
m_graph->addEdgeAsPlainCopy(e)));
}
});
}
}
}
}
setActiveAndVisibility(utility::concat(m_activeNodeIds, m_activeEdgeIds));
layoutNesting();
layoutGraph();
buildGraph(message, GraphView::GraphParams());
}
}
void GraphController::handleMessage(MessageGraphNodeHide* message)
{
DummyNode* node = getDummyGraphNodeById(message->tokenId).get();
DummyEdge* edge = nullptr;
if (node)
{
if (node->active || node->hasActiveSubNode())
{
MessageStatus(L"Can't hide active node or node with active children", true).dispatch();
return;
}
node->hidden = true;
}
else
{
edge = getDummyGraphEdgeById(message->tokenId);
if (edge)
{
edge->hidden = true;
edge->visible = false;
DummyNode* from = getDummyGraphNodeById(edge->ownerId).get();
DummyNode* to = getDummyGraphNodeById(edge->targetId).get();
if (from)
{
from->connected = false;
}
if (to)
{
to->connected = false;
}
}
}
if (node || edge)
{
relayoutGraph(message, GraphView::GraphParams(), false, L"");
}
}
void GraphController::handleMessage(MessageGraphNodeMove* message)
{
DummyNode* node = getDummyGraphNodeById(message->tokenId).get();
if (node)
{
node->position += message->delta;
if (m_graph->getTrailMode() != Graph::TRAIL_NONE)
{
std::set<Id> childNodeIds;
for (const std::pair<Id, Id>& p: m_topLevelAncestorIds)
{
if (p.second == message->tokenId)
{
childNodeIds.insert(p.first);
}
}
for (std::shared_ptr<DummyEdge> edge: m_dummyEdges)
{
if (childNodeIds.find(edge->ownerId) != childNodeIds.end() ||
childNodeIds.find(edge->targetId) != childNodeIds.end())
{
edge->path.clear();
}
}
}
if (message->isReplayed())
{
buildGraph(message, GraphView::GraphParams());
}
else
{
getView()->resizeView();
}
}
}
void GraphController::handleMessage(MessageShowReference* message)
{
if (!message->tokenId || !message->fromUser)
{
return;
}
m_activeEdgeIds = std::vector<Id>(1, message->tokenId);
setActiveAndVisibility(utility::concat(m_activeNodeIds, m_activeEdgeIds));
GraphView::GraphParams params;
params.animatedTransition = false;
buildGraph(message, params);
}
GraphView* GraphController::getView() const
{
return Controller::getView<GraphView>();
}
void GraphController::clear()
{
m_dummyNodes.clear();
m_dummyEdges.clear();
m_dummyGraphNodes.clear();
m_activeNodeIds.clear();
m_activeEdgeIds.clear();
m_graph.reset();
m_useBezierEdges = false;
m_showsLegend = false;
m_tokenIdToFocus = 0;
getView()->clear();
}
void GraphController::createDummyGraph(const std::shared_ptr<Graph> graph)
{
TRACE();
GraphView* view = getView();
if (!view)
{
LOG_ERROR("GraphController has no associated GraphView");
return;
}
m_dummyEdges.clear();
m_dummyGraphNodes.clear();
m_topLevelAncestorIds.clear();
std::set<Id> addedNodes;
std::vector<std::shared_ptr<DummyNode>> dummyNodes;
graph->forEachNode([&addedNodes, &dummyNodes, this](Node* node) {
Node* parent = node->getLastParentNode();
Id parentId = parent->getId();
if (addedNodes.find(parentId) != addedNodes.end())
{
return;
}
addedNodes.insert(parentId);
utility::append(dummyNodes, createDummyNodeTopDown(parent, parentId));
});
std::set<Id> addedEdges;
graph->forEachEdge([&addedEdges, this](Edge* edge) {
if (!edge->isType(Edge::EDGE_MEMBER) && addedEdges.find(edge->getId()) == addedEdges.end())
{
m_dummyEdges.push_back(std::make_shared<DummyEdge>(
edge->getFrom()->getId(), edge->getTo()->getId(), edge));
addedEdges.insert(edge->getId());
}
});
updateDummyNodeNamesAndAddQualifiers(dummyNodes);
m_dummyNodes = dummyNodes;
m_graph = graph;
m_useBezierEdges = false;
m_showsLegend = false;
}
void GraphController::createDummyGraphAndSetActiveAndVisibility(
const std::vector<Id>& tokenIds, const std::shared_ptr<Graph> graph, bool keepExpandedNodesExpanded)
{
std::vector<Id> expandedNodeIds;
if (keepExpandedNodesExpanded)
{
expandedNodeIds = getExpandedNodeIds();
}
createDummyGraph(graph);
bool noActive = setActive(tokenIds, false);
autoExpandActiveNode(tokenIds);
if (keepExpandedNodesExpanded)
{
setExpandedNodeIds(expandedNodeIds);
}
setVisibility(noActive);
hideBuiltinTypes();
}
std::vector<std::shared_ptr<DummyNode>> GraphController::createDummyNodeTopDown(Node* node, Id ancestorId)
{
std::vector<std::shared_ptr<DummyNode>> nodes;
std::shared_ptr<DummyNode> result = std::make_shared<DummyNode>(DummyNode::DUMMY_DATA);
result->data = node;
result->name = node->getName();
result->tokenId = node->getId();
m_topLevelAncestorIds.emplace(node->getId(), ancestorId);
m_dummyGraphNodes.emplace(result->data->getId(), result);
nodes.push_back(result);
if (node->getType().isPackage())
{
node->forEachChildNode([&nodes, &ancestorId, this](Node* child) {
utility::append(nodes, createDummyNodeTopDown(child, ancestorId));
});
return nodes;
}
node->forEachChildNode([&result, &ancestorId, this](Node* child) {
DummyNode* parent = nullptr;
AccessKind accessKind = ACCESS_NONE;
TokenComponentAccess* access = child->getComponent<TokenComponentAccess>();
if (access)
{
accessKind = access->getAccess();
}
for (const std::shared_ptr<DummyNode>& dummy: result->subNodes)
{
if (dummy->accessKind == accessKind)
{
parent = dummy.get();
break;
}
}
if (!parent)
{
std::shared_ptr<DummyNode> accessNode = std::make_shared<DummyNode>(
DummyNode::DUMMY_ACCESS);
accessNode->accessKind = accessKind;
result->subNodes.push_back(accessNode);
parent = accessNode.get();
}
utility::append(parent->subNodes, createDummyNodeTopDown(child, ancestorId));
});
return nodes;
}
void GraphController::updateDummyNodeNamesAndAddQualifiers(
const std::vector<std::shared_ptr<DummyNode>>& dummyNodes)
{
for (const std::shared_ptr<DummyNode>& node: dummyNodes)
{
if (node->isGroupNode() || !node->data || node->data->getType().isFile())
{
updateDummyNodeNamesAndAddQualifiers(node->subNodes);
}
else if (node->data->getType().isPackage())
{
node->name = node->data->getFullName();
}
else
{
node->name = node->data->getName();
NameHierarchy qualifier = node->data->getNameHierarchy();
qualifier.pop();
if (qualifier.size())
{
std::shared_ptr<DummyNode> qualifierNode = std::make_shared<DummyNode>(
DummyNode::DUMMY_QUALIFIER);
qualifierNode->qualifierName = qualifier;
qualifierNode->visible = true;
node->subNodes.push_back(qualifierNode);
node->qualifierName = qualifier;
}
}
}
}
std::vector<Id> GraphController::getExpandedNodeIds() const
{
std::vector<Id> nodeIds;
for (const std::pair<Id, std::shared_ptr<DummyNode>>& p: m_dummyGraphNodes)
{
DummyNode* oldNode = p.second.get();
if (oldNode->expanded && !oldNode->autoExpanded && oldNode->isGraphNode() &&
!oldNode->data->isType(NODE_FUNCTION | NODE_METHOD))
{
nodeIds.push_back(p.first);
}
}
return nodeIds;
}
void GraphController::setExpandedNodeIds(const std::vector<Id>& nodeIds)
{
for (Id id: nodeIds)
{
DummyNode* node = getDummyGraphNodeById(id).get();
if (node)
{
node->expanded = true;
MessageGraphNodeExpand(id, true, true);
}
}
}
void GraphController::autoExpandActiveNode(const std::vector<Id>& activeTokenIds)
{
DummyNode* node = nullptr;
if (activeTokenIds.size() == 1)
{
node = getDummyGraphNodeById(activeTokenIds[0]).get();
}
if (node && !node->hasMissingChildNodes())
{
node->expanded = true;
node->autoExpanded = true;
}
}
bool GraphController::setActive(const std::vector<Id>& activeTokenIds, bool showAllEdges)
{
TRACE();
bool noActive = !activeTokenIds.size();
if (activeTokenIds.size() > 0)
{
noActive = true;
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (setNodeActiveRecursive(node.get(), activeTokenIds))
{
noActive = false;
}
}
}
bool noActiveFinal = noActive;
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
if (!edge->data)
{
continue;
}
edge->active = false;
if (find(activeTokenIds.begin(), activeTokenIds.end(), edge->data->getId()) !=
activeTokenIds.end())
{
edge->active = true;
noActiveFinal = false;
}
DummyNode* from = getDummyGraphNodeById(edge->ownerId).get();
DummyNode* to = getDummyGraphNodeById(edge->targetId).get();
bool isInheritance = edge->data->isType(Edge::EDGE_INHERITANCE);
if (from && to && !edge->hidden &&
(showAllEdges || noActive || from->active || to->active || edge->active || isInheritance) &&
!(to->active && edge->data->isType(Edge::EDGE_TYPE_USAGE) &&
to->data->isParentOf(from->data))) // Don't show type use edges to active parent
{
edge->visible = true;
from->connected = true;
to->connected = true;
}
else
{
edge->visible = false;
}
}
return noActiveFinal;
}
void GraphController::setVisibility(bool noActive)
{
TRACE();
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
setNodeVisibilityRecursiveBottomUp(node.get(), noActive);
}
}
void GraphController::setActiveAndVisibility(const std::vector<Id>& activeTokenIds)
{
TRACE();
setVisibility(setActive(activeTokenIds, false));
}
bool GraphController::setNodeActiveRecursive(DummyNode* node, const std::vector<Id>& activeTokenIds) const
{
bool hasActive = false;
node->active = false;
if (node->isGraphNode())
{
node->active = find(activeTokenIds.begin(), activeTokenIds.end(), node->data->getId()) !=
activeTokenIds.end();
if (node->active)
{
hasActive = true;
}
}
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (setNodeActiveRecursive(subNode.get(), activeTokenIds))
{
hasActive = true;
}
}
return hasActive;
}
bool GraphController::setNodeVisibilityRecursiveBottomUp(DummyNode* node, bool noActive) const
{
node->visible = false;
node->childVisible = false;
if (node->hidden)
{
return false;
}
else if (node->isExpandToggleNode())
{
node->visible = true;
return false;
}
else if (node->isBundleNode())
{
node->visible = true;
return true;
}
else if (node->isQualifierNode())
{
node->visible = true;
return false;
}
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (setNodeVisibilityRecursiveBottomUp(subNode.get(), noActive))
{
node->childVisible = true;
}
}
if (node->isAccessNode() && node->accessKind == ACCESS_NONE && node->childVisible)
{
node->visible = true;
}
else if (noActive || node->active || node->connected || node->childVisible)
{
setNodeVisibilityRecursiveTopDown(node, false);
}
return node->visible;
}
void GraphController::setNodeVisibilityRecursiveTopDown(DummyNode* node, bool parentExpanded) const
{
if (node->isGraphNode() && node->data->getType().getKind() == NODE_ENUM && !node->isExpanded())
{
node->visible = true;
return;
}
if ((node->isGraphNode() && node->isExpanded()) ||
(node->isAccessNode() && (node->accessKind == ACCESS_NONE || parentExpanded)))
{
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (!subNode->isQualifierNode() && !subNode->isExpandToggleNode() && !subNode->hidden)
{
setNodeVisibilityRecursiveTopDown(subNode.get(), node->isExpanded());
node->childVisible |= subNode->visible;
}
}
}
if (!node->isAccessNode() || node->childVisible)
{
node->visible = true;
}
}
void GraphController::hideBuiltinTypes()
{
if (ApplicationSettings::getInstance()->getShowBuiltinTypesInGraph() ||
m_activeNodeIds.size() != 1)
{
return;
}
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (node->isGraphNode() && !node->active && node->data->getType().isBuiltin())
{
node->visible = false;
node->hidden = true;
}
}
}
void GraphController::bundleNodes()
{
TRACE();
// evaluate top level nodes
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (!node->isGraphNode() || !node->visible)
{
continue;
}
DummyNode::BundleInfo* bundleInfo = &node->bundleInfo;
bundleInfo->isActive = node->hasActiveSubNode();
node->data->forEachNodeRecursive([&bundleInfo](const Node* n) {
if (n->isDefined())
{
bundleInfo->isDefined = true;
}
if (bundleInfo->layoutVertical)
{
return;
}
n->forEachEdgeOfType(~Edge::EDGE_MEMBER, [&bundleInfo, &n](Edge* e) {
if (bundleInfo->layoutVertical)
{
return;
}
if (e->isType(Edge::LAYOUT_VERTICAL))
{
bundleInfo->layoutVertical = true;
bundleInfo->isReferenced = false;
bundleInfo->isReferencing = false;
}
if (e->isType(Edge::EDGE_BUNDLED_EDGES))
{
TokenComponentBundledEdges::Direction dir =
e->getComponent<TokenComponentBundledEdges>()->getDirection();
if (dir == TokenComponentBundledEdges::DIRECTION_NONE)
{
bundleInfo->isReferenced = true;
bundleInfo->isReferencing = true;
}
else if (
(dir == TokenComponentBundledEdges::DIRECTION_FORWARD && e->getFrom() == n) ||
(dir == TokenComponentBundledEdges::DIRECTION_BACKWARD && e->getTo() == n))
{
bundleInfo->isReferencing = true;
}
else if (
(dir == TokenComponentBundledEdges::DIRECTION_FORWARD && e->getTo() == n) ||
(dir == TokenComponentBundledEdges::DIRECTION_BACKWARD && e->getFrom() == n))
{
bundleInfo->isReferenced = true;
}
}
else
{
if (e->getTo() == n)
{
bundleInfo->isReferenced = true;
}
else if (e->getFrom() == n)
{
bundleInfo->isReferencing = true;
}
}
});
});
if (bundleInfo->isReferenced && bundleInfo->isReferencing)
{
bundleInfo->isReferenced = false;
bundleInfo->isReferencing = false;
}
if (bundleInfo->isActive)
{
bundleInfo->layoutVertical = false;
}
}
// Left for debugging
// for (std::shared_ptr<DummyNode> node : m_dummyNodes)
// {
// std::cout << node->bundleInfo.isActive << " ";
// std::cout << node->bundleInfo.isDefined << " ";
// std::cout << node->bundleInfo.layoutVertical << " ";
// std::cout << node->bundleInfo.isReferenced << " ";
// std::cout << node->bundleInfo.isReferencing << " ";
// std::wcout << node->name << std::endl;
// }
// bundle
bool fileOrMacroActive = false;
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (node->bundleInfo.isActive &&
(node->data->isType(NODE_FILE | NODE_MACRO) ||
node->data->findEdgeOfType(Edge::EDGE_INCLUDE | Edge::EDGE_MACRO_USAGE) != nullptr))
{
fileOrMacroActive = true;
break;
}
}
if (fileOrMacroActive)
{
return;
}
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return data->getType().isFile() && data->findEdgeOfType(Edge::EDGE_IMPORT);
},
1,
false,
L"Importing Files");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return !info.isDefined && info.isReferencing && !info.layoutVertical;
},
2,
true,
L"Non-indexed Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return !info.isDefined && info.isReferenced && !info.layoutVertical;
},
2,
true,
L"Non-indexed Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isDefined && info.isReferenced && data->getType().isBuiltin();
},
3,
false,
L"Built-in Types");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isDefined && info.isReferencing && !info.layoutVertical;
},
10,
false,
L"Referencing Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isDefined && info.isReferenced && !info.layoutVertical;
},
10,
false,
L"Referenced Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isReferencing && info.layoutVertical &&
data->findEdgeOfType(Edge::EDGE_TEMPLATE_SPECIALIZATION);
},
5,
false,
L"Specializing Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isReferencing && info.layoutVertical &&
data->findEdgeOfType(Edge::EDGE_INHERITANCE);
},
5,
false,
L"Derived Symbols");
bundleNodesAndEdgesMatching(
[](const DummyNode::BundleInfo& info, const Node* data) {
return info.isReferenced && info.layoutVertical &&
data->findEdgeOfType(Edge::EDGE_INHERITANCE);
},
5,
false,
L"Base Symbols");
}
void GraphController::bundleNodesAndEdgesMatching(
std::function<bool(const DummyNode::BundleInfo&, const Node* data)> matcher,
size_t count,
bool countConnectedNodes,
const std::wstring& name)
{
std::vector<size_t> matchedNodeIndices;
size_t connectedNodeCount = 0;
for (size_t i = 0; i < m_dummyNodes.size(); i++)
{
const DummyNode* node = m_dummyNodes[i].get();
if (node->bundleInfo.isActive || !node->visible || !node->isGraphNode())
{
continue;
}
if (matcher(node->bundleInfo, node->data))
{
matchedNodeIndices.push_back(i);
if (countConnectedNodes)
{
connectedNodeCount += node->getConnectedSubNodes().size();
}
}
}
size_t matchedNodeCount = countConnectedNodes ? connectedNodeCount : matchedNodeIndices.size();
if (!matchedNodeIndices.size() || matchedNodeCount < count ||
matchedNodeIndices.size() == m_dummyNodes.size())
{
return;
}
std::shared_ptr<DummyNode> bundleNode = std::make_shared<DummyNode>(DummyNode::DUMMY_BUNDLE);
bundleNode->name = name;
bundleNode->visible = true;
for (int i = static_cast<int>(matchedNodeIndices.size()) - 1; i >= 0; i--)
{
std::shared_ptr<DummyNode> node = m_dummyNodes[matchedNodeIndices[i]];
node->visible = false;
bundleNode->bundledNodes.insert(node);
bundleNode->bundledNodeCount += node->getBundledNodeCount();
m_dummyNodes.erase(m_dummyNodes.begin() + matchedNodeIndices[i]);
}
if (countConnectedNodes)
{
bundleNode->bundledNodeCount = connectedNodeCount;
}
DummyNode* firstNode = bundleNode->bundledNodes.begin()->get();
// Use token Id of first node and make first bit 1
bundleNode->tokenId = ~(~Id(0) >> 1) + firstNode->data->getId();
bundleNode->bundleInfo.layoutVertical = firstNode->bundleInfo.layoutVertical;
bundleNode->bundleInfo.isReferenced = firstNode->bundleInfo.isReferenced;
bundleNode->bundleInfo.isReferencing = firstNode->bundleInfo.isReferencing;
m_dummyNodes.push_back(bundleNode);
if (m_dummyEdges.size() == 0)
{
return;
}
std::vector<std::shared_ptr<DummyEdge>> bundleEdges;
std::vector<const DummyNode*> bundledNodes = bundleNode->getAllBundledNodes();
for (const DummyNode* node: bundledNodes)
{
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
bool owner = (edge->ownerId == node->data->getId());
bool target = (edge->targetId == node->data->getId());
if (!owner && !target)
{
continue;
}
DummyEdge* bundleEdgePtr = nullptr;
for (const std::shared_ptr<DummyEdge>& bundleEdge: bundleEdges)
{
if ((owner && bundleEdge->ownerId == edge->targetId) ||
(target && bundleEdge->ownerId == edge->ownerId))
{
bundleEdgePtr = bundleEdge.get();
break;
}
}
if (!bundleEdgePtr)
{
std::shared_ptr<DummyEdge> bundleEdge = std::make_shared<DummyEdge>();
bundleEdge->visible = true;
bundleEdge->ownerId = (owner ? edge->targetId : edge->ownerId);
bundleEdge->targetId = bundleNode->tokenId;
bundleEdges.push_back(bundleEdge);
bundleEdgePtr = bundleEdges.back().get();
}
bundleEdgePtr->weight += edge->getWeight();
bundleEdgePtr->updateDirection(edge->getDirection(), owner);
edge->visible = false;
}
}
m_dummyEdges.insert(m_dummyEdges.end(), bundleEdges.begin(), bundleEdges.end());
}
std::shared_ptr<DummyNode> GraphController::bundleNodesMatching(
std::list<std::shared_ptr<DummyNode>>& nodes,
std::function<bool(const DummyNode*)> matcher,
const std::wstring& name)
{
std::vector<std::list<std::shared_ptr<DummyNode>>::iterator> matchedNodes;
for (std::list<std::shared_ptr<DummyNode>>::iterator it = nodes.begin(); it != nodes.end(); it++)
{
if (matcher(it->get()))
{
matchedNodes.push_back(it);
}
}
if (matchedNodes.empty())
{
return nullptr;
}
std::shared_ptr<DummyNode> bundleNode = std::make_shared<DummyNode>(DummyNode::DUMMY_BUNDLE);
bundleNode->name = name;
bundleNode->visible = true;
for (int i = static_cast<int>(matchedNodes.size()) - 1; i >= 0; i--)
{
std::shared_ptr<DummyNode> node = *matchedNodes[i];
node->visible = false;
bundleNode->bundledNodes.insert(node);
nodes.erase(matchedNodes[i]);
}
// Use token Id of first node and make first bit 1
bundleNode->tokenId = ~(~Id(0) >> 1) + (*bundleNode->bundledNodes.begin())->data->getId();
return bundleNode;
}
std::shared_ptr<DummyNode> GraphController::bundleByType(
std::list<std::shared_ptr<DummyNode>>& nodes,
const NodeType& type,
const Tree<NodeType::BundleInfo>& bundleInfoTree,
const bool considerInvisibleNodes)
{
std::shared_ptr<DummyNode> bundleNode = bundleNodesMatching(
nodes,
[&](const DummyNode* node) {
return (considerInvisibleNodes || node->visible) && node->isGraphNode() &&
node->data->getType() == type && bundleInfoTree.data.nameMatcher(node->name);
},
bundleInfoTree.data.bundleName);
if (bundleNode)
{
bundleNode->bundledNodeType = type;
bundleNode->bundledNodeCount = bundleNode->getBundledNodeCount();
if (!bundleInfoTree.children.empty())
{
std::list<std::shared_ptr<DummyNode>> bundledNodes(
bundleNode->bundledNodes.begin(), bundleNode->bundledNodes.end());
bundleNode->bundledNodes.clear();
// crate a sub-bundle for anonymous namespaces
for (const Tree<NodeType::BundleInfo>& childBundleInfoTree: bundleInfoTree.children)
{
std::shared_ptr<DummyNode> childBundle = bundleByType(
bundledNodes, type, childBundleInfoTree, true);
if (childBundle)
{
bundleNode->bundledNodes.insert(childBundle);
}
}
bundleNode->bundledNodes.insert(bundledNodes.begin(), bundledNodes.end());
}
}
return bundleNode;
}
void GraphController::bundleNodesByType()
{
TRACE();
std::list<std::shared_ptr<DummyNode>> nodes(m_dummyNodes.begin(), m_dummyNodes.end());
std::vector<std::shared_ptr<DummyNode>> oldNodes = std::move(m_dummyNodes);
m_dummyNodes.clear();
bool hasNonFileBundle = false;
for (const NodeType& nodeType: NodeType::overviewBundleNodeTypesOrdered)
{
Tree<NodeType::BundleInfo> bundleInfoTree = nodeType.getOverviewBundleTree();
if (bundleInfoTree.data.isValid())
{
std::shared_ptr<DummyNode> bundleNode = bundleByType(
nodes, nodeType, bundleInfoTree, false);
if (bundleNode)
{
m_dummyNodes.push_back(bundleNode);
if (bundleNode->bundledNodeType.getKind() != NODE_FILE)
{
hasNonFileBundle = true;
}
}
}
}
if (nodes.size() && !hasNonFileBundle)
{
Tree<NodeType::BundleInfo> bundleInfoTree(NodeType::BundleInfo(L"Symbols"));
std::shared_ptr<DummyNode> bundleNode = bundleByType(
nodes, NodeType(NODE_SYMBOL), bundleInfoTree, false);
if (bundleNode)
{
m_dummyNodes.push_back(bundleNode);
}
}
if (nodes.size())
{
LOG_ERROR("Nodes left after bundling for overview");
}
}
void GraphController::addCharacterIndex()
{
// Remove index characters from last time
DummyNode::BundledNodesSet newNodes;
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (!node->isTextNode())
{
newNodes.insert(node);
}
}
m_dummyNodes.clear();
m_dummyNodes.insert(m_dummyNodes.end(), newNodes.begin(), newNodes.end());
// Add index characters
wchar_t character = 0;
for (size_t i = 0; i < m_dummyNodes.size(); i++)
{
if (!m_dummyNodes[i]->visible || !m_dummyNodes[i]->name.size())
{
continue;
}
if (towupper(m_dummyNodes[i]->name[0]) != character)
{
character = towupper(m_dummyNodes[i]->name[0]);
std::shared_ptr<DummyNode> textNode = std::make_shared<DummyNode>(DummyNode::DUMMY_TEXT);
textNode->name = character;
textNode->visible = true;
m_dummyNodes.insert(m_dummyNodes.begin() + i, textNode);
}
}
}
bool GraphController::hasCharacterIndex() const
{
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (node->isTextNode())
{
return true;
}
}
return false;
}
void GraphController::groupNodesByParents(GroupType groupType)
{
TRACE();
if (groupType != GroupType::FILE && groupType != GroupType::NAMESPACE)
{
return;
}
std::map<std::wstring, std::shared_ptr<DummyNode>> groupNodes;
std::map<std::wstring, std::vector<std::shared_ptr<DummyNode>>> nodesToGroup;
std::map<Id, std::pair<Id, NameHierarchy>> nodeIdtoParentMap;
if (groupType == GroupType::FILE)
{
std::vector<Id> nodeIds;
for (const std::shared_ptr<DummyNode>& dummyNode: m_dummyNodes)
{
if (dummyNode->isGraphNode())
{
nodeIds.push_back(dummyNode->tokenId);
}
}
nodeIdtoParentMap = m_storageAccess->getNodeIdToParentFileMap(nodeIds);
}
std::map<std::wstring, Id> qualifierNameToIdMap;
for (const std::shared_ptr<DummyNode>& dummyNode: m_dummyNodes)
{
if (dummyNode->isGroupNode())
{
groupNodes.emplace(dummyNode->name, dummyNode);
}
else if (dummyNode->visible)
{
if (groupType == GroupType::FILE)
{
if (dummyNode->isGraphNode())
{
auto it = nodeIdtoParentMap.find(dummyNode->tokenId);
if (it != nodeIdtoParentMap.end())
{
nodesToGroup[it->second.second.getQualifiedName()].push_back(dummyNode);
}
}
}
else if (groupType == GroupType::NAMESPACE)
{
const DummyNode* qualifierNode = dummyNode->getQualifierNode();
if (qualifierNode)
{
Id qualifierId = 0;
std::wstring qualifierName = qualifierNode->qualifierName.getQualifiedName();
auto it = qualifierNameToIdMap.find(qualifierName);
if (it != qualifierNameToIdMap.end())
{
qualifierId = it->second;
}
else
{
qualifierId = m_storageAccess->getNodeIdForNameHierarchy(
qualifierNode->qualifierName);
qualifierNameToIdMap.emplace(qualifierName, qualifierId);
}
nodesToGroup[qualifierName].push_back(dummyNode);
nodeIdtoParentMap.emplace(
dummyNode->tokenId,
std::make_pair(qualifierId, qualifierNode->qualifierName));
}
}
}
}
std::set<Id> groupedNodeIds;
for (const std::pair<std::wstring, std::vector<std::shared_ptr<DummyNode>>>& p: nodesToGroup)
{
std::shared_ptr<DummyNode> groupNode;
std::wstring name = p.first;
if (groupType == GroupType::FILE)
{
name = FilePath(p.first).fileName();
}
auto it = groupNodes.find(name);
if (it != groupNodes.end())
{
groupNode = it->second;
}
else
{
groupNode = std::make_shared<DummyNode>(DummyNode::DUMMY_GROUP);
groupNode->visible = true;
groupNode->groupType = groupType;
groupNode->groupLayout = GroupLayout::BUCKET;
groupNode->name = name;
auto it = nodeIdtoParentMap.find(p.second[0]->tokenId);
if (it != nodeIdtoParentMap.end())
{
groupNode->tokenId = it->second.first;
}
m_topLevelAncestorIds[groupNode->tokenId] = groupNode->tokenId;
m_dummyNodes.push_back(groupNode);
}
for (std::shared_ptr<DummyNode> dummyNode: p.second)
{
if (dummyNode->hasActiveSubNode())
{
groupNode->bundleInfo = dummyNode->bundleInfo;
groupNode->bundleId = dummyNode->bundleId;
}
groupNode->subNodes.push_back(dummyNode);
m_topLevelAncestorIds[dummyNode->tokenId] = groupNode->tokenId;
groupedNodeIds.insert(dummyNode->tokenId);
}
if (!groupNode->bundleId)
{
groupNode->bundleId = groupNode->subNodes[0]->bundleId;
}
groupNode->bundleInfo = DummyNode::BundleInfo::averageBundleInfo(groupNode->getBundleInfos());
groupNode->sortSubNodesByName();
}
for (int i = 0; i < int(m_dummyNodes.size()); i++)
{
if (groupedNodeIds.find(m_dummyNodes[i]->tokenId) != groupedNodeIds.end())
{
m_dummyNodes.erase(m_dummyNodes.begin() + i);
i--;
}
}
}
DummyNode* GraphController::groupAllNodes(GroupType groupType, Id groupNodeId)
{
TRACE();
std::shared_ptr<DummyNode> groupNode = std::make_shared<DummyNode>(DummyNode::DUMMY_GROUP);
groupNode->visible = true;
groupNode->groupType = groupType;
groupNode->tokenId = groupNodeId;
m_topLevelAncestorIds[groupNode->tokenId] = groupNode->tokenId;
for (std::shared_ptr<DummyNode> dummyNode: m_dummyNodes)
{
groupNode->subNodes.push_back(dummyNode);
m_topLevelAncestorIds[dummyNode->tokenId] = groupNode->tokenId;
}
if (groupNode->subNodes.size())
{
m_dummyNodes = {groupNode};
}
return groupNode.get();
}
void GraphController::groupTrailNodes(GroupType groupType)
{
TRACE();
struct TrailNode
{
Id nodeId;
std::set<Id> targetNodeIds;
std::set<Id> originNodeIds;
std::vector<DummyEdge*> targetEdges;
std::vector<DummyEdge*> originEdges;
};
std::set<Id> possibleNodeIds;
for (auto dummyNode: m_dummyNodes)
{
if (dummyNode->visible && dummyNode->tokenId &&
(!dummyNode->subNodes.size() ||
(dummyNode->subNodes.size() == 1 && dummyNode->subNodes[0]->isQualifierNode())))
{
possibleNodeIds.insert(dummyNode->tokenId);
}
}
std::map<Id, TrailNode> nodes;
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
if (edge->visible && possibleNodeIds.find(edge->ownerId) != possibleNodeIds.end() &&
possibleNodeIds.find(edge->targetId) != possibleNodeIds.end())
{
TrailNode& fromNode = nodes[edge->ownerId];
fromNode.nodeId = edge->ownerId;
fromNode.targetNodeIds.insert(edge->targetId);
fromNode.targetEdges.push_back(edge.get());
TrailNode& toNode = nodes[edge->targetId];
toNode.nodeId = edge->targetId;
toNode.originNodeIds.insert(edge->ownerId);
toNode.originEdges.push_back(edge.get());
}
}
std::set<Id> groupedNodeIds;
while (nodes.size())
{
TrailNode node = nodes.begin()->second;
nodes.erase(nodes.begin());
std::vector<TrailNode> group;
std::map<Id, TrailNode>::iterator it = nodes.begin();
while (it != nodes.end())
{
if (node.targetNodeIds.size() <= 1 && it->second.targetNodeIds == node.targetNodeIds &&
node.originNodeIds.size() <= 1 && it->second.originNodeIds == node.originNodeIds)
{
group.push_back(it->second);
it = nodes.erase(it);
}
else
{
it++;
}
}
group.push_back(node);
if (group.size() < 3)
{
continue;
}
std::shared_ptr<DummyNode> groupNode = std::make_shared<DummyNode>(DummyNode::DUMMY_GROUP);
groupNode->visible = true;
groupNode->groupType = groupType;
groupNode->groupLayout = GroupLayout::SQUARE;
// Use token Id of first node and make first 2 bits 1
groupNode->tokenId = ~(~Id(0) >> 2) + node.nodeId;
m_topLevelAncestorIds[groupNode->tokenId] = groupNode->tokenId;
std::shared_ptr<DummyEdge> targetEdge = std::make_shared<DummyEdge>();
targetEdge->ownerId = groupNode->tokenId;
std::shared_ptr<DummyEdge> originEdge = std::make_shared<DummyEdge>();
originEdge->targetId = groupNode->tokenId;
std::vector<Id> hiddenEdgeIds;
for (TrailNode& node: group)
{
std::shared_ptr<DummyNode> dummyNode = getDummyGraphNodeById(node.nodeId);
if (!dummyNode)
{
continue;
}
groupedNodeIds.insert(node.nodeId);
groupNode->subNodes.push_back(dummyNode);
m_topLevelAncestorIds[node.nodeId] = groupNode->tokenId;
for (DummyEdge* edge: node.targetEdges)
{
if (!targetEdge->visible)
{
targetEdge->visible = true;
targetEdge->targetId = edge->targetId;
targetEdge->data = edge->data;
}
edge->visible = false;
edge->hidden = true;
if (edge->data)
{
groupNode->hiddenEdgeIds.push_back(edge->data->getId());
}
}
for (DummyEdge* edge: node.originEdges)
{
if (!originEdge->visible)
{
originEdge->visible = true;
originEdge->ownerId = edge->ownerId;
originEdge->data = edge->data;
}
edge->visible = false;
edge->hidden = true;
if (edge->data)
{
groupNode->hiddenEdgeIds.push_back(edge->data->getId());
}
}
}
if (targetEdge->visible)
{
m_dummyEdges.push_back(targetEdge);
}
if (originEdge->visible)
{
m_dummyEdges.push_back(originEdge);
}
groupNode->sortSubNodesByName();
m_dummyNodes.push_back(groupNode);
}
for (int i = 0; i < int(m_dummyNodes.size()); i++)
{
if (groupedNodeIds.find(m_dummyNodes[i]->tokenId) != groupedNodeIds.end())
{
m_dummyNodes.erase(m_dummyNodes.begin() + i);
i--;
}
}
}
void GraphController::layoutNesting()
{
TRACE();
extendEqualFunctionNames(m_dummyNodes);
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
layoutNestingRecursive(node.get());
}
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
layoutToGrid(node.get());
}
}
void GraphController::extendEqualFunctionNames(const std::vector<std::shared_ptr<DummyNode>>& nodes) const
{
std::multimap<std::wstring, std::shared_ptr<DummyNode>> functionNames;
for (auto& node: nodes)
{
if (node->visible && node->isGraphNode() && node->data->isType(NODE_FUNCTION | NODE_METHOD))
{
functionNames.emplace(node->name, node);
}
}
for (auto it: functionNames)
{
if (functionNames.count(it.first) < 2)
{
continue;
}
auto ret = functionNames.equal_range(it.first);
for (auto it2 = ret.first; it2 != ret.second; it2++)
{
it2->second->name =
it2->second->data->getNameHierarchy().getRawNameWithSignatureParameters();
}
}
for (auto& node: nodes)
{
if (node->subNodes.size())
{
extendEqualFunctionNames(node->subNodes);
}
}
}
Vec4i GraphController::layoutNestingRecursive(DummyNode* node, int relayoutAccessMaxWidth) const
{
if (!node->visible)
{
return Vec4i(0, 0, 0, 0);
}
GraphViewStyle::NodeMargins margins;
if (node->isGraphNode())
{
margins = GraphViewStyle::getMarginsForDataNode(
node->data->getType().getNodeStyle(), node->data->getType().hasIcon(), node->childVisible);
}
else if (node->isAccessNode())
{
margins = GraphViewStyle::getMarginsOfAccessNode(node->accessKind);
}
else if (node->isExpandToggleNode())
{
margins = GraphViewStyle::getMarginsOfExpandToggleNode();
}
else if (node->isBundleNode())
{
if (node->bundledNodeType.getKind() != NODE_SYMBOL)
{
margins = GraphViewStyle::getMarginsForDataNode(
node->bundledNodeType.getNodeStyle(), node->bundledNodeType.hasIcon(), false);
}
else
{
margins = GraphViewStyle::getMarginsOfBundleNode();
}
}
else if (node->isQualifierNode())
{
return Vec4i(0, 0, 0, 0);
}
else if (node->isTextNode())
{
margins = GraphViewStyle::getMarginsOfTextNode(node->fontSizeDiff);
}
else if (node->isGroupNode())
{
margins = GraphViewStyle::getMarginsOfGroupNode(node->groupType, node->name.size());
}
int width = 0;
int height = 0;
if (node->isGraphNode())
{
node->name = utility::elide(node->name, utility::ELIDE_RIGHT, node->active ? 100 : 50);
width = static_cast<int>(margins.charWidth * node->name.size());
if (node->data->getType().isCollapsible() && node->data->getChildCount() > 0)
{
addExpandToggleNode(node);
}
}
else if (node->isBundleNode() || node->isTextNode())
{
width = static_cast<int>(margins.charWidth * node->name.size());
}
else if (node->isGroupNode())
{
width = static_cast<int>(margins.charWidth * node->name.size() + 5);
}
width += margins.iconWidth;
width = std::max(width, margins.minWidth);
if (relayoutAccessMaxWidth == -1)
{
int maxAccessWidth = 0;
std::shared_ptr<const DummyNode> maxWidthAccessNode;
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (!subNode->visible)
{
continue;
}
else if (subNode->isQualifierNode())
{
subNode->position.y = static_cast<int>(margins.top + margins.charHeight / 2);
width += 5;
continue;
}
Vec4i rect = layoutNestingRecursive(subNode.get());
if (subNode->isExpandToggleNode())
{
width += margins.spacingX + subNode->size.x;
}
else if (subNode->isAccessNode() && rect.z() > maxAccessWidth)
{
maxAccessWidth = rect.z();
maxWidthAccessNode = subNode;
}
}
if (maxAccessWidth > 0)
{
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (subNode->visible && subNode->isAccessNode() && subNode != maxWidthAccessNode)
{
layoutNestingRecursive(subNode.get(), maxAccessWidth);
}
}
}
}
if (node->subNodes.size())
{
if (node->isGroupNode())
{
Vec2i viewSize = getView()->getViewSize();
switch (node->groupLayout)
{
case GroupLayout::LIST:
viewSize.x = viewSize.x - 150; // prevent horizontal scroll
ListLayouter::layoutMultiColumn(viewSize, &node->subNodes);
break;
case GroupLayout::SKEWED:
ListLayouter::layoutSkewed(
&node->subNodes,
margins.spacingX,
margins.spacingY,
static_cast<int>(viewSize.x() * 1.5));
break;
case GroupLayout::BUCKET:
if (node->hasActiveSubNode() || !m_activeNodeIds.size() /* bundled edges */)
{
BucketLayouter grid(viewSize);
grid.createBuckets(node->subNodes, m_dummyEdges);
grid.layoutBuckets(m_activeNodeIds.size());
node->subNodes = grid.getSortedNodes();
}
else
{
ListLayouter::layoutColumn(&node->subNodes, margins.spacingY);
}
break;
case GroupLayout::SQUARE:
ListLayouter::layoutSquare(&node->subNodes, -1);
break;
}
}
else if (node->isAccessNode() && !node->hasConnectedSubNode())
{
ListLayouter::layoutSquare(&node->subNodes, relayoutAccessMaxWidth);
}
else
{
ListLayouter::layoutColumn(&node->subNodes, margins.spacingY);
}
}
Vec2i size = ListLayouter::offsetNodes(
node->subNodes,
static_cast<int>(margins.top + margins.charHeight + margins.spacingA),
margins.left);
width = std::max(size.x(), width);
height = size.y();
node->size.x = margins.left + width + margins.right;
node->size.y = static_cast<int>(
margins.top + margins.charHeight + margins.spacingA + height + margins.bottom);
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (!subNode->visible)
{
continue;
}
if (subNode->isAccessNode())
{
subNode->size.x = width;
}
else if (subNode->isExpandToggleNode())
{
subNode->position.x = margins.left + width - subNode->size.x;
subNode->position.y = 6;
}
}
return ListLayouter::boundingRect(node->subNodes);
}
void GraphController::addExpandToggleNode(DummyNode* node) const
{
std::shared_ptr<DummyNode> expandNode = std::make_shared<DummyNode>(
DummyNode::DUMMY_EXPAND_TOGGLE);
expandNode->expanded = node->expanded;
expandNode->visible = true;
size_t visibleSubNodeCount = 0;
for (size_t i = 0; i < node->subNodes.size(); i++)
{
DummyNode* subNode = node->subNodes[i].get();
if (subNode->isExpandToggleNode())
{
node->subNodes.erase(node->subNodes.begin() + i);
i--;
continue;
}
if (subNode->isQualifierNode())
{
continue;
}
for (const std::shared_ptr<DummyNode>& subSubNode: subNode->subNodes)
{
if ((subSubNode->visible || subSubNode->hidden) &&
(!subSubNode->isGraphNode() || !subSubNode->data->isImplicit() ||
node->data->isImplicit()))
{
visibleSubNodeCount++;
}
}
}
expandNode->invisibleSubNodeCount = node->data->getChildCount() - visibleSubNodeCount;
if ((expandNode->isExpanded() && visibleSubNodeCount > 0) || expandNode->invisibleSubNodeCount)
{
node->subNodes.push_back(expandNode);
}
}
void GraphController::layoutToGrid(DummyNode* node) const
{
if (!node->visible || !node->isGraphNode() || !node->hasVisibleSubNode())
{
return;
}
// Increase size of nodes with visible chilren to cover full grid cells
size_t width = GraphViewStyle::toGridSize(node->size.x);
size_t height = GraphViewStyle::toGridSize(node->size.y);
size_t incX = width - node->size.x;
size_t incY = height - node->size.y;
DummyNode* lastAccessNode = nullptr;
DummyNode* expandToggleNode = nullptr;
for (const std::shared_ptr<DummyNode>& subNode: node->subNodes)
{
if (!subNode->visible)
{
continue;
}
if (subNode->isAccessNode())
{
subNode->size.x = static_cast<int>(subNode->size.x + incX);
lastAccessNode = subNode.get();
}
else if (subNode->isExpandToggleNode())
{
expandToggleNode = subNode.get();
}
}
if (lastAccessNode)
{
lastAccessNode->size.y = static_cast<int>(lastAccessNode->size.y + incY);
if (expandToggleNode)
{
expandToggleNode->position.x = static_cast<int>(expandToggleNode->position.x + incX);
}
node->size.x = static_cast<int>(width);
node->size.y = static_cast<int>(height);
}
}
void GraphController::layoutGraph(bool getSortedNodes)
{
TRACE();
std::vector<std::shared_ptr<DummyNode>> visibleNodes;
for (auto node: m_dummyNodes)
{
if (node->visible)
{
visibleNodes.push_back(node);
}
}
BucketLayouter grid(getView()->getViewSize());
grid.createBuckets(visibleNodes, m_dummyEdges);
grid.layoutBuckets(false);
if (getSortedNodes)
{
m_dummyNodes = grid.getSortedNodes();
}
}
void GraphController::layoutList()
{
TRACE();
ListLayouter::layoutMultiColumn(getView()->getViewSize(), &m_dummyNodes);
}
void GraphController::layoutTrail(bool horizontal, bool hasOrigin)
{
TrailLayouter::LayoutDirection direction;
if (horizontal)
{
if (hasOrigin)
{
direction = TrailLayouter::LAYOUT_LEFT_RIGHT;
}
else
{
direction = TrailLayouter::LAYOUT_RIGHT_LEFT;
}
}
else
{
if (hasOrigin)
{
direction = TrailLayouter::LAYOUT_TOP_BOTTOM;
}
else
{
direction = TrailLayouter::LAYOUT_BOTTOM_TOP;
}
}
std::vector<std::shared_ptr<DummyNode>> visibleNodes;
for (auto node: m_dummyNodes)
{
if (node->visible)
{
visibleNodes.push_back(node);
}
}
TrailLayouter layout(direction);
layout.layoutGraph(visibleNodes, m_dummyEdges, m_topLevelAncestorIds);
}
void GraphController::assignBundleIds()
{
Id bundleId = 0;
for (size_t i = m_dummyNodes.size(); i > 0; i--)
{
bundleId = m_dummyNodes[i - 1]->setBundleIdRecursive(bundleId);
}
}
std::shared_ptr<DummyNode> GraphController::getDummyGraphNodeById(Id tokenId) const
{
std::map<Id, std::shared_ptr<DummyNode>>::const_iterator it = m_dummyGraphNodes.find(tokenId);
if (it != m_dummyGraphNodes.end())
{
return it->second;
}
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
if (node->tokenId == tokenId)
{
return node;
}
}
return nullptr;
}
DummyEdge* GraphController::getDummyGraphEdgeById(Id tokenId) const
{
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
if (edge->data && edge->data->getId() == tokenId)
{
return edge.get();
}
}
return nullptr;
}
void GraphController::relayoutGraph(
MessageBase* message,
GraphView::GraphParams params,
bool withCharacterIndex,
const std::wstring& groupName)
{
bool showsTrail = m_graph->getTrailMode() != Graph::TRAIL_NONE;
setVisibility(setActive(utility::concat(m_activeNodeIds, m_activeEdgeIds), showsTrail));
if (hasCharacterIndex() || withCharacterIndex)
{
addCharacterIndex();
if (withCharacterIndex && m_dummyNodes.size())
{
// Use token Id of first node and make first 2 bits 1
Id groupId = ~(~Id(0) >> 2) + m_dummyNodes[0]->tokenId;
DummyNode* group = groupAllNodes(GroupType::DEFAULT, groupId);
group->groupLayout = GroupLayout::LIST;
group->interactive = false;
group->name = groupName;
}
layoutNesting();
layoutList();
}
else
{
if (!showsTrail)
{
groupNodesByParents(getView()->getGrouping());
}
layoutNesting();
if (showsTrail)
{
layoutTrail(
m_graph->getTrailMode() == Graph::TRAIL_HORIZONTAL, m_graph->hasTrailOrigin());
}
else
{
layoutGraph();
}
}
buildGraph(message, params);
}
void GraphController::buildGraph(MessageBase* message, GraphView::GraphParams params)
{
if (!message->isReplayed())
{
params.isIndexedList = params.scrollToTop;
params.bezierEdges = m_useBezierEdges;
params.disableInteraction = m_showsLegend;
params.tokenIdToFocus = m_tokenIdToFocus;
getView()->rebuildGraph(m_graph, m_dummyNodes, m_dummyEdges, params);
m_tokenIdToFocus = 0;
}
}
void GraphController::forEachDummyNodeRecursive(std::function<void(DummyNode*)> func)
{
for (const std::shared_ptr<DummyNode>& node: m_dummyNodes)
{
node->forEachDummyNodeRecursive(func);
}
}
void GraphController::forEachDummyEdge(std::function<void(DummyEdge*)> func)
{
for (const std::shared_ptr<DummyEdge>& edge: m_dummyEdges)
{
func(edge.get());
}
}
void GraphController::createLegendGraph()
{
Id id = ~Id(0) >> 1;
std::map<Id, Vec2i> nodePositions;
std::shared_ptr<Graph> graph = std::make_shared<Graph>();
auto addText = [this](std::wstring text, int fontSizeDiff, Vec2i position) {
std::shared_ptr<DummyNode> node = std::make_shared<DummyNode>(DummyNode::DUMMY_TEXT);
node->name = text;
node->visible = true;
node->fontSizeDiff = fontSizeDiff;
node->position = position;
m_dummyNodes.push_back(node);
return node;
};
auto addNode = [&id, &graph, &nodePositions](
NodeKind kind,
const std::wstring& name,
Vec2i position,
DefinitionKind defKind = DEFINITION_EXPLICIT) {
nodePositions.emplace(++id, position);
return graph->createNode(
id, NodeType(kind), NameHierarchy(name, NAME_DELIMITER_UNKNOWN), defKind);
};
auto addEdge = [&id, &graph](Edge::EdgeType type, Node* from, Node* to) {
return graph->createEdge(++id, type, from, to);
};
auto addMember = [&id, &graph](Node* from, Node* to, AccessKind access = ACCESS_NONE) {
if (access != ACCESS_NONE)
{
to->addComponent(std::make_shared<TokenComponentAccess>(access));
}
return graph->createEdge(++id, Edge::EDGE_MEMBER, from, to);
};
addText(L"Legend", 6, Vec2i(0, 0));
int y = 50;
int x = 0;
// Layout
{
addText(L"Layout", 3, Vec2i(x, y));
x = 50;
y = 40;
Node* base = addNode(NODE_CLASS, L"Base Class", Vec2i(x + 220, y + 50));
Node* main = addNode(NODE_CLASS, L"Class", Vec2i(x + 200, y + 130));
Node* derived = addNode(NODE_CLASS, L"Derived Class", Vec2i(x + 210, y + 380));
Node* user = addNode(NODE_TYPE, L"Referencing Type", Vec2i(x - 10, y + 220));
Node* usee = addNode(NODE_TYPE, L"Referenced Type", Vec2i(x + 410, y + 220));
addEdge(Edge::EDGE_INHERITANCE, main, base);
addEdge(Edge::EDGE_INHERITANCE, derived, main);
{
Edge* edge = addEdge(Edge::EDGE_BUNDLED_EDGES, user, main);
std::shared_ptr<TokenComponentBundledEdges> bundledEdgesComp =
std::make_shared<TokenComponentBundledEdges>();
for (size_t i = 0; i < 10; i++)
{
bundledEdgesComp->addBundledEdgesId(++id, true);
}
edge->addComponent(bundledEdgesComp);
}
{
Edge* edge = addEdge(Edge::EDGE_BUNDLED_EDGES, main, usee);
std::shared_ptr<TokenComponentBundledEdges> bundledEdgesComp =
std::make_shared<TokenComponentBundledEdges>();
for (size_t i = 0; i < 10; i++)
{
bundledEdgesComp->addBundledEdgesId(++id, true);
}
edge->addComponent(bundledEdgesComp);
}
Node* publicMethod = addNode(NODE_METHOD, L"public method", Vec2i());
Node* privateField = addNode(NODE_FIELD, L"private field", Vec2i());
addMember(main, publicMethod, ACCESS_PUBLIC);
addMember(main, privateField, ACCESS_PRIVATE);
y += 480;
x += 10;
Node* func = addNode(NODE_FUNCTION, L"function", Vec2i(x + 220, y));
Node* caller = addNode(NODE_FUNCTION, L"calling function", Vec2i(x, y));
Node* var = addNode(NODE_GLOBAL_VARIABLE, L"accessed variable", Vec2i(x + 410, y - 50));
Node* called = addNode(NODE_FUNCTION, L"called function", Vec2i(x + 410, y - 10));
Node* type = addNode(NODE_TYPE, L"Referenced Type", Vec2i(x + 410, y + 30));
addEdge(Edge::EDGE_CALL, func, called);
addEdge(Edge::EDGE_CALL, caller, func);
addEdge(Edge::EDGE_USAGE, func, var);
addEdge(Edge::EDGE_TYPE_USAGE, func, type);
}
x = 0;
y = 610;
int dx = 200;
int dy = 50;
// Nodes
{
int i = 0;
addText(L"Nodes", 3, Vec2i(x, y));
addNode(NODE_FILE, L"File", Vec2i(x, y + dy * ++i));
addNode(NODE_FILE, L"Non-Indexed File", Vec2i(x, y + dy * ++i), DEFINITION_NONE);
Node* incompleteFile = addNode(NODE_FILE, L"Incomplete File", Vec2i(x, y + dy * ++i));
incompleteFile->addComponent(std::make_shared<TokenComponentFilePath>(FilePath(), false));
addNode(NODE_MACRO, L"Macro", Vec2i(x, y + dy * ++i));
addNode(NODE_ANNOTATION, L"Annotation", Vec2i(x, y + dy * ++i));
addNode(NODE_MODULE, L"module", Vec2i(x, y + dy * ++i));
y -= 15;
addNode(NODE_NAMESPACE, L"namespace", Vec2i(x, y + dy * ++i));
y -= 15;
addNode(NODE_PACKAGE, L"package", Vec2i(x, y + dy * ++i));
y -= 15;
addNode(NODE_TYPE, L"Type", Vec2i(x, y + dy * ++i));
addNode(NODE_TYPE, L"Non-indexed Type", Vec2i(x, y + dy * ++i), DEFINITION_NONE);
addNode(NODE_GLOBAL_VARIABLE, L"variable", Vec2i(x, y + dy * ++i));
y -= 15;
addNode(
NODE_GLOBAL_VARIABLE, L"non-indexed variable", Vec2i(x, y + dy * ++i), DEFINITION_NONE);
y -= 15;
addNode(NODE_FUNCTION, L"function", Vec2i(x, y + dy * ++i));
y -= 15;
addNode(NODE_FUNCTION, L"non-indexed function", Vec2i(x, y + dy * ++i), DEFINITION_NONE);
y -= 15;
Node* typeNode = addNode(NODE_TYPE, L"Type with Members", Vec2i(x, y + dy * ++i));
Node* publicMethod = addNode(NODE_METHOD, L"public method", Vec2i());
Node* protectedMethod = addNode(NODE_METHOD, L"protected method", Vec2i());
Node* privateMethod = addNode(NODE_METHOD, L"private method", Vec2i());
Node* defaultMethod = addNode(NODE_METHOD, L"default method", Vec2i());
Node* publicField = addNode(NODE_FIELD, L"public field", Vec2i());
Node* protectedField = addNode(NODE_FIELD, L"protected field", Vec2i());
Node* privateField = addNode(NODE_FIELD, L"private field", Vec2i());
Node* defaultField = addNode(NODE_FIELD, L"default field", Vec2i());
addMember(typeNode, publicMethod, ACCESS_PUBLIC);
addMember(typeNode, publicField, ACCESS_PUBLIC);
addMember(typeNode, protectedMethod, ACCESS_PROTECTED);
addMember(typeNode, protectedField, ACCESS_PROTECTED);
addMember(typeNode, privateMethod, ACCESS_PRIVATE);
addMember(typeNode, privateField, ACCESS_PRIVATE);
addMember(typeNode, defaultMethod, ACCESS_DEFAULT);
addMember(typeNode, defaultField, ACCESS_DEFAULT);
y -= 15;
i += 9;
addNode(NODE_CLASS, L"Class", Vec2i(x, y + dy * ++i));
addNode(NODE_INTERFACE, L"Interface", Vec2i(x, y + dy * ++i));
addNode(NODE_STRUCT, L"Struct", Vec2i(x, y + dy * ++i));
addNode(NODE_UNION, L"Union", Vec2i(x, y + dy * ++i));
addNode(NODE_TYPEDEF, L"TypeDef", Vec2i(x, y + dy * ++i));
Node* enumNode = addNode(NODE_ENUM, L"Enum", Vec2i(x, y + dy * ++i));
Node* enumConstantNode = addNode(NODE_ENUM_CONSTANT, L"ENUM_CONSTANT", Vec2i());
addMember(enumNode, enumConstantNode);
y += 10;
i += 1;
Node* genericNode = addNode(
NODE_TYPE, L"JavaGenericType<ParameterType>", Vec2i(x, y + dy * ++i));
Node* genericParameterNode = addNode(NODE_TYPE_PARAMETER, L"ParameterType", Vec2i());
addMember(genericNode, genericParameterNode, ACCESS_TYPE_PARAMETER);
i += 2;
y += 10;
std::shared_ptr<DummyNode> groupNode = std::make_shared<DummyNode>(DummyNode::DUMMY_GROUP);
groupNode->name = L"Group Node";
groupNode->visible = true;
groupNode->groupType = GroupType::DEFAULT;
groupNode->position = Vec2i(x, y + dy * ++i);
m_dummyNodes.push_back(groupNode);
y += 25;
std::shared_ptr<DummyNode> bundleNode = std::make_shared<DummyNode>(DummyNode::DUMMY_BUNDLE);
bundleNode->name = L"Bundle Node";
bundleNode->visible = true;
bundleNode->position = Vec2i(x, y + dy * ++i);
m_dummyNodes.push_back(bundleNode);
}
y = 610;
x = 380;
// Edges
{
addText(L"Edges", 3, Vec2i(x, y));
int i = 0;
{
addText(L"file include", 0, Vec2i(x, y + dy * ++i));
Node* file = addNode(NODE_FILE, L"File", Vec2i(x, y + dy * ++i));
Node* fileB = addNode(NODE_FILE, L"File", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_INCLUDE, file, fileB);
}
{
addText(L"class import", 0, Vec2i(x, y + dy * ++i));
Node* file = addNode(NODE_FILE, L"File", Vec2i(x, y + dy * ++i));
Node* type = addNode(NODE_TYPE, L"Class", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_IMPORT, file, type);
}
{
addText(L"macro use", 0, Vec2i(x, y + dy * ++i));
Node* file = addNode(NODE_FILE, L"File", Vec2i(x, y + dy * ++i));
Node* macro = addNode(NODE_MACRO, L"Macro", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_MACRO_USAGE, file, macro);
}
{
addText(L"annotation use", 0, Vec2i(x, y + dy * ++i));
Node* type = addNode(NODE_TYPE, L"Type", Vec2i(x, y + dy * ++i));
Node* macro = addNode(NODE_ANNOTATION, L"Annotation", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_ANNOTATION_USAGE, type, macro);
}
{
addText(L"bundled edges", 0, Vec2i(x, y + dy * ++i));
Node* typeA = addNode(NODE_TYPE, L"Type A", Vec2i(x, y + dy * ++i));
Node* typeB = addNode(NODE_TYPE, L"Type B", Vec2i(x + dx, y + dy * i));
Edge* edge = addEdge(Edge::EDGE_BUNDLED_EDGES, typeA, typeB);
std::shared_ptr<TokenComponentBundledEdges> bundledEdgesComp =
std::make_shared<TokenComponentBundledEdges>();
for (size_t i = 0; i < 10; i++)
{
bundledEdgesComp->addBundledEdgesId(++id, true);
}
edge->addComponent(bundledEdgesComp);
}
{
addText(L"type use", 0, Vec2i(x, y + dy * ++i));
Node* function = addNode(NODE_FUNCTION, L"function", Vec2i(x, y + dy * ++i));
Node* type = addNode(NODE_TYPE, L"Type", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_TYPE_USAGE, function, type);
}
{
addText(L"function call", 0, Vec2i(x, y + dy * ++i));
Node* function = addNode(NODE_FUNCTION, L"function", Vec2i(x, y + dy * ++i));
Node* functionB = addNode(NODE_FUNCTION, L"function", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_CALL, function, functionB);
}
{
addText(L"variable access", 0, Vec2i(x, y + dy * ++i));
Node* function = addNode(NODE_FUNCTION, L"function", Vec2i(x, y + dy * ++i));
Node* variable = addNode(NODE_GLOBAL_VARIABLE, L"variable", Vec2i(x + dx, y + dy * i));
addEdge(Edge::EDGE_USAGE, function, variable);
}
{
addText(L"class inheritance", 0, Vec2i(x, y + dy * ++i));
Node* base = addNode(NODE_CLASS, L"Base Class", Vec2i(x, y + dy * (i + 1)));
Node* derived = addNode(NODE_CLASS, L"Derived Class", Vec2i(x, y + dy * (i + 3)));
addEdge(Edge::EDGE_INHERITANCE, derived, base);
Node* base2 = addNode(NODE_CLASS, L"Base Class", Vec2i(x + 180, y + dy * (i + 1)));
Node* derived2 = addNode(
NODE_CLASS, L"Derived Derived Class", Vec2i(x + 180, y + dy * (i + 3)));
Edge* edge = addEdge(Edge::EDGE_INHERITANCE, derived2, base2);
edge->addComponent(
std::make_shared<TokenComponentInheritanceChain>(std::vector<Id>({1, 2})));
i += 3;
}
{
addText(L"method override", 0, Vec2i(x, y + dy * ++i));
Node* base = addNode(NODE_CLASS, L"Base Class", Vec2i(x, y + dy * ++i));
i += 3;
Node* derived = addNode(NODE_CLASS, L"Derived Class", Vec2i(x, y + dy * i));
Node* baseMethod = addNode(NODE_METHOD, L"method", Vec2i());
Node* derivedMethod = addNode(NODE_METHOD, L"method", Vec2i());
addMember(base, baseMethod, ACCESS_PUBLIC);
addMember(derived, derivedMethod, ACCESS_PUBLIC);
addEdge(Edge::EDGE_OVERRIDE, derivedMethod, baseMethod);
i += 2;
}
{
addText(L"template specialization", 0, Vec2i(x, y + dy * ++i));
Node* templateFunctionNode = addNode(
NODE_FUNCTION, L"template_function<typename ParameterType>", Vec2i(x, y + dy * ++i));
y += 20;
Node* templateFunctionSpecializationNode = addNode(
NODE_FUNCTION,
L"template_function<ArgumentType>",
Vec2i(x, y + dy * ++i),
DEFINITION_IMPLICIT);
addEdge(
Edge::EDGE_TEMPLATE_SPECIALIZATION,
templateFunctionSpecializationNode,
templateFunctionNode);
Node* templateNode = addNode(
NODE_TYPE, L"TemplateType<typename ParameterType>", Vec2i(x, y + dy * ++i));
y += 30;
Node* templateSpecializationNode = addNode(
NODE_TYPE, L"TemplateType<ArgumentType>", Vec2i(x, y + dy * ++i), DEFINITION_IMPLICIT);
Node* argumentNode = addNode(NODE_TYPE, L"ArgumentType", Vec2i(x + 270, y + dy * i));
addEdge(Edge::EDGE_TEMPLATE_SPECIALIZATION, templateSpecializationNode, templateNode);
addEdge(Edge::EDGE_TYPE_USAGE, templateSpecializationNode, argumentNode);
}
{
addText(L"template member specialization", 0, Vec2i(x, y + dy * ++i));
Node* templateNode = addNode(
NODE_TYPE, L"TemplateType<typename ParameterType>", Vec2i(x, y + dy * ++i));
Node* templateMethodNode = addNode(NODE_METHOD, L"method", Vec2i());
addMember(templateNode, templateMethodNode);
i += 1;
Node* templateSpecializationNode = addNode(
NODE_TYPE,
L"TemplateType<ArgumentType>",
Vec2i(x, y + dy * ++i + 20),
DEFINITION_IMPLICIT);
Node* templateSpecializationMethodNode = addNode(
NODE_METHOD, L"method", Vec2i(), DEFINITION_IMPLICIT);
addMember(templateSpecializationNode, templateSpecializationMethodNode);
addEdge(
Edge::EDGE_TEMPLATE_SPECIALIZATION,
templateSpecializationMethodNode,
templateMethodNode);
}
}
std::vector<std::shared_ptr<DummyNode>> nodes = m_dummyNodes;
createDummyGraphAndSetActiveAndVisibility({}, graph, false);
m_dummyNodes = utility::concat(nodes, m_dummyNodes);
for (std::shared_ptr<DummyNode> node: m_dummyNodes)
{
if (node->tokenId)
{
auto it = nodePositions.find(node->tokenId);
if (it != nodePositions.end())
{
node->position = it->second;
}
}
}
}