import IR.Descriptor;
import IR.FieldDescriptor;
+import IR.VarDescriptor;
public class HierarchyGraph {
Descriptor desc;
+ boolean isSCgraph;
+
String name;
// graph structure
Map<Descriptor, HNode> mapDescToHNode;
Map<HNode, Set<Descriptor>> mapHNodeToDescSet;
Map<HNode, HNode> mapHNodeToCurrentHNode; // tracking which node corresponds to the initial node
+ Map<String, HNode> mapHNodeNameToCurrentHNode; // tracking which node corresponds to the initial
+ // node
Map<HNode, Set<HNode>> mapMergeNodetoMergingSet;
// data structures for a combination node
Map<Set<HNode>, HNode> mapCombineNodeSetToCombinationNode;
Map<Set<HNode>, Set<HNode>> mapCombineNodeSetToOutgoingNodeSet;
- Map<HNode, String> mapHNodeToLocationName;
+ Map<HNode, Set<HNode>> mapNormalNodeToSCNodeReachToSet;
- Set<HNode> nodeSet;
+ Map<Set<HNode>, Set<HNode>> mapCombineNodeSetToFirstNodeOfChainSet;
- public static int seed = 0;
+ Set<HNode> nodeSet;
// for the lattice generation
Map<HNode, Integer> mapHNodeToUniqueIndex;
mapHNodeToUniqueIndex = new HashMap<HNode, Integer>();
mapHNodeToBasis = new HashMap<HNode, Set<Integer>>();
- mapHNodeToLocationName = new HashMap<HNode, String>();
mapMergeNodetoMergingSet = new HashMap<HNode, Set<HNode>>();
mapHNodeToCurrentHNode = new HashMap<HNode, HNode>();
+ mapHNodeNameToCurrentHNode = new HashMap<String, HNode>();
+
+ mapNormalNodeToSCNodeReachToSet = new HashMap<HNode, Set<HNode>>();
+
+ mapCombineNodeSetToFirstNodeOfChainSet = new HashMap<Set<HNode>, Set<HNode>>();
+
+ isSCgraph = false;
}
- public Descriptor getDesc() {
- return desc;
+ public void setSCGraph(boolean in) {
+ isSCgraph = in;
}
- public void setDesc(Descriptor desc) {
- this.desc = desc;
+ public boolean isSCGraph() {
+ return isSCgraph;
}
- public void addMapHNodeToLocationName(HNode node, String locName) {
- mapHNodeToLocationName.put(node, locName);
+ public Descriptor getDesc() {
+ return desc;
}
- public String getLocationName(HNode node) {
- return mapHNodeToLocationName.get(node);
+ public void setDesc(Descriptor desc) {
+ this.desc = desc;
}
public String getName() {
return mapHNodeToCurrentHNode;
}
+ public Map<String, HNode> getMapHNodeNameToCurrentHNode() {
+ return mapHNodeNameToCurrentHNode;
+ }
+
public void setMapHNodeToCurrentHNode(Map<HNode, HNode> mapHNodeToCurrentHNode) {
this.mapHNodeToCurrentHNode = mapHNodeToCurrentHNode;
}
+ public void setMapHNodeNameToCurrentHNode(Map<String, HNode> mapHNodeNameToCurrentHNode) {
+ this.mapHNodeNameToCurrentHNode = mapHNodeNameToCurrentHNode;
+ }
+
public Map<Descriptor, HNode> getMapDescToHNode() {
return mapDescToHNode;
}
if (possibleCycleSet.size() > 0) {
if (possibleCycleSet.size() == 1) {
+ // System.out.println("possibleCycleSet=" + possibleCycleSet + " from src=" + srcHNode
+ // + " dstHNode=" + dstHNode);
if (dstHNode.isSharedNode()) {
// it has already been assigned shared node.
} else {
dstHNode.setSharedNode(true);
+ // System.out.println("$$$setShared=" + dstHNode);
}
return;
}
- HNode newMergeNode = mergeNodes(possibleCycleSet, false);
+ // System.out.println("--- CYCLIC VALUE FLOW: " + srcHNode + " -> " + dstHNode);
+ HNode newMergeNode = mergeNodes(possibleCycleSet);
newMergeNode.setSharedNode(true);
- System.out.println("### INTRODUCE A NEW MERGE NODE: " + newMergeNode);
- System.out.println("### CYCLIC VALUE FLOW: " + srcHNode + " -> " + dstHNode);
+
} else {
getIncomingNodeSet(dstHNode).add(srcHNode);
getOutgoingNodeSet(srcHNode).add(dstHNode);
- System.out.println("add an edge " + srcHNode + " -> " + dstHNode);
+ // System.out.println("add an edge " + srcHNode + " -> " + dstHNode);
}
}
}
public void addEdge(Descriptor src, Descriptor dst) {
- HNode srcHNode = getHNode(src);
- HNode dstHNode = getHNode(dst);
- addEdge(srcHNode, dstHNode);
+ if (src.equals(LocationInference.LITERALDESC)) {
+ // in this case, we do not need to add a source hnode
+ // just add a destination hnode
+ getHNode(dst);
+ } else {
+ HNode srcHNode = getHNode(src);
+ HNode dstHNode = getHNode(dst);
+ addEdge(srcHNode, dstHNode);
+ }
}
public HNode getHNode(Descriptor d) {
if (!mapDescToHNode.containsKey(d)) {
HNode newNode = new HNode(d);
+
if (d instanceof FieldDescriptor) {
newNode.setSkeleton(true);
}
+
+ if (d.equals(LocationInference.TOPDESC)) {
+ newNode.setSkeleton(true);
+ }
+
+ String symbol = d.getSymbol();
+ if (symbol.startsWith(LocationInference.PCLOC) || symbol.startsWith(LocationInference.RLOC)) {
+ newNode.setSkeleton(true);
+ }
+
mappingDescriptorToHNode(d, newNode);
nodeSet.add(newNode);
}
skeletonGraph.setMapHNodeToDescSet(getMapHNodeToDescSet());
skeletonGraph.setMapHNodetoMergeSet(getMapHNodetoMergeSet());
skeletonGraph.setMapHNodeToCurrentHNode(getMapHNodeToCurrentHNode());
+ skeletonGraph.setMapHNodeNameToCurrentHNode(getMapHNodeNameToCurrentHNode());
return skeletonGraph;
}
- public void simplifyHierarchyGraph() {
+ public void simplifyHierarchyGraph(LocationInference infer) {
removeRedundantEdges();
- combineRedundantNodes(false);
+ combineRedundantNodes(infer);
}
- public void simplifySkeletonCombinationHierarchyGraph() {
- removeRedundantEdges();
- combineRedundantNodes(true);
- }
-
- public void combineRedundantNodes(boolean onlyCombinationNodes) {
+ public void combineRedundantNodes(LocationInference infer) {
// Combine field/parameter nodes who have the same set of incoming/outgoing edges.
boolean isUpdated = false;
do {
- isUpdated = combineTwoRedundatnNodes(onlyCombinationNodes);
+ isUpdated = combineTwoRedundatnNodes(infer);
} while (isUpdated);
}
return mapHNodeToOutgoingSet.get(node);
}
- private boolean combineTwoRedundatnNodes(boolean onlyCombinationNodes) {
+ private boolean combineTwoRedundatnNodes(LocationInference infer) {
for (Iterator iterator = nodeSet.iterator(); iterator.hasNext();) {
HNode node1 = (HNode) iterator.next();
- if ((onlyCombinationNodes && (!node1.isCombinationNode()))
- || (!onlyCombinationNodes && (!node1.isSkeleton()))) {
+ // if ((onlyCombinationNodes && (!node1.isCombinationNode()))
+ // || (!onlyCombinationNodes && (!node1.isSkeleton()))) {
+ // continue;
+ // }
+
+ if (!node1.isSkeleton()) {
continue;
}
for (Iterator iterator2 = nodeSet.iterator(); iterator2.hasNext();) {
HNode node2 = (HNode) iterator2.next();
- if ((onlyCombinationNodes && (!node2.isCombinationNode()))
- || (!onlyCombinationNodes && (!node2.isSkeleton()))) {
+ // if ((onlyCombinationNodes && (!node2.isCombinationNode()))
+ // || (!onlyCombinationNodes && (!node2.isSkeleton()))) {
+ // continue;
+ // }
+
+ if (!node2.isSkeleton()) {
+ continue;
+ }
+
+ if (!isEligibleForMerging(node1, node2)) {
continue;
}
&& outgoingNodeSet1.equals(outgoingNodeSet2)) {
// need to merge node1 and node2
+ // ///////////////
+ // merge two nodes only if every hierarchy graph in the inheritance hierarchy
+ // that includes both nodes allows the merging of them...
Set<HNode> mergeSet = new HashSet<HNode>();
mergeSet.add(node1);
mergeSet.add(node2);
- mergeNodes(mergeSet, onlyCombinationNodes);
+ infer.isValidMergeInheritanceCheck(desc, mergeSet);
+
+ // ///////////////
+
+ mergeNodes(mergeSet);
return true;
}
return false;
}
+ private boolean isEligibleForMerging(HNode node1, HNode node2) {
+
+ if (node1.isSharedNode() || node2.isSharedNode()) {
+
+ // if either of nodes is a shared node,
+ // all descriptors of node1 & node2 should have a primitive type
+
+ Set<Descriptor> descSet = new HashSet<Descriptor>();
+ descSet.addAll(getDescSetOfNode(node1));
+ descSet.addAll(getDescSetOfNode(node2));
+
+ for (Iterator iterator = descSet.iterator(); iterator.hasNext();) {
+ Descriptor desc = (Descriptor) iterator.next();
+ if (!LocationInference.isPrimitive(desc)) {
+ return false;
+ }
+ }
+ return true;
+ }
+ return false;
+ }
+
private void addEdgeWithNoCycleCheck(HNode srcHNode, HNode dstHNode) {
getIncomingNodeSet(dstHNode).add(srcHNode);
getOutgoingNodeSet(srcHNode).add(dstHNode);
- System.out.println("addEdgeWithNoCycleCheck src=" + srcHNode + " -> " + dstHNode);
+ // System.out.println("addEdgeWithNoCycleCheck src=" + srcHNode + " -> " + dstHNode);
}
- private HNode mergeNodes(Set<HNode> set, boolean onlyCombinationNodes) {
+ private HNode mergeNodes(Set<HNode> set) {
Set<HNode> incomingNodeSet = new HashSet<HNode>();
Set<HNode> outgoingNodeSet = new HashSet<HNode>();
String nodeName;
boolean isMergeNode = false;
- if (onlyCombinationNodes) {
- nodeName = "Comb" + (seed++);
- } else {
- nodeName = "Node" + (seed++);
- isMergeNode = true;
- }
+ nodeName = "MNode" + (LocationInference.locSeed++);
+ isMergeNode = true;
+
HNode newMergeNode = new HNode(nodeName);
newMergeNode.setMergeNode(isMergeNode);
// if the input set contains a skeleton node, need to set a new merge node as skeleton also
boolean hasSkeleton = false;
+ boolean hasShared = false;
for (Iterator iterator = set.iterator(); iterator.hasNext();) {
HNode inNode = (HNode) iterator.next();
if (inNode.isSkeleton()) {
hasSkeleton = true;
- break;
+ }
+ if (inNode.isSharedNode()) {
+ hasShared = true;
}
}
- System.out.println("--Set merging node=" + newMergeNode + " as a skeleton=" + set
- + " hasSkeleton=" + hasSkeleton);
+ // System.out.println("-----Set merging node=" + newMergeNode + " as a skeleton=" + set
+ // + " hasSkeleton=" + hasSkeleton + " CUR DESC=" + desc);
newMergeNode.setSkeleton(hasSkeleton);
+ newMergeNode.setSharedNode(hasShared);
+
+ // System.out.println("-----MERGING NODE=" + set + " new node=" + newMergeNode);
for (Iterator iterator = set.iterator(); iterator.hasNext();) {
HNode node = (HNode) iterator.next();
mergedSkeletonNode.add(merged);
}
}
- mapMergeNodetoMergingSet.put(newMergeNode, mergedSkeletonNode);
- for (Iterator iterator = mergedSkeletonNode.iterator(); iterator.hasNext();) {
+
+ // mapMergeNodetoMergingSet.put(newMergeNode, mergedSkeletonNode);
+ // for (Iterator iterator = set.iterator(); iterator.hasNext();) {
+ mapMergeNodetoMergingSet.put(newMergeNode, set);
+ for (Iterator iterator = set.iterator(); iterator.hasNext();) {
HNode mergedNode = (HNode) iterator.next();
addMapHNodeToCurrentHNode(mergedNode, newMergeNode);
}
- System.out.println("###MERGING NODE=" + set + " new node=" + newMergeNode);
+ for (Iterator iterator = set.iterator(); iterator.hasNext();) {
+ HNode hNode = (HNode) iterator.next();
+ // System.out.println("old=" + hNode + "----->newNode=" + getCurrentHNode(hNode));
+ }
+
+ // System.out.println();
+
return newMergeNode;
}
private void addMapHNodeToCurrentHNode(HNode curNode, HNode newNode) {
+
if (curNode.isMergeNode()) {
Set<HNode> mergingSet = getMergingSet(curNode);
+ mergingSet.add(curNode);
+ // System.out.println("-------addMapHNodeToCurrentHNode curNode=" + curNode + " meringSet="
+ // + mergingSet + " newNode=" + newNode);
for (Iterator iterator = mergingSet.iterator(); iterator.hasNext();) {
HNode mergingNode = (HNode) iterator.next();
mapHNodeToCurrentHNode.put(mergingNode, newNode);
+ mapHNodeNameToCurrentHNode.put(mergingNode.getName(), newNode);
}
} else {
mapHNodeToCurrentHNode.put(curNode, newNode);
+ mapHNodeNameToCurrentHNode.put(curNode.getName(), newNode);
}
+
}
public HNode getCurrentHNode(HNode node) {
return mapHNodeToCurrentHNode.get(node);
}
+ public HNode getCurrentHNode(String nodeName) {
+ return mapHNodeNameToCurrentHNode.get(nodeName);
+ }
+
private Set<HNode> getMergingSet(HNode mergeNode) {
Set<HNode> mergingSet = new HashSet<HNode>();
Set<HNode> mergedNode = mapMergeNodetoMergingSet.get(mergeNode);
for (Iterator iterator = mergedNode.iterator(); iterator.hasNext();) {
HNode node = (HNode) iterator.next();
if (node.isMergeNode()) {
+ mergingSet.add(node);
mergingSet.addAll(getMergingSet(node));
} else {
mergingSet.add(node);
return mergingSet;
}
- private Set<Descriptor> getDescSetOfNode(HNode node) {
+ public Set<Descriptor> getDescSetOfNode(HNode node) {
if (!mapHNodeToDescSet.containsKey(node)) {
mapHNodeToDescSet.put(node, new HashSet<Descriptor>());
}
}
+ public Set<HNode> getReachableSCNodeSet(HNode startNode) {
+ // returns the set of hnodes which is reachable from the startNode and is either SC node or a
+ // node which is directly connected to the SC nodes
+ Set<HNode> reachable = new HashSet<HNode>();
+ Set<HNode> visited = new HashSet<HNode>();
+ visited.add(startNode);
+ recurReachableNodeSet(startNode, visited, reachable);
+ return reachable;
+ }
+
+ public Set<HNode> getSCNodeReachToSet(HNode node) {
+ if (!mapNormalNodeToSCNodeReachToSet.containsKey(node)) {
+ mapNormalNodeToSCNodeReachToSet.put(node, new HashSet<HNode>());
+ }
+ return mapNormalNodeToSCNodeReachToSet.get(node);
+ }
+
+ private void recurReachableNodeSet(HNode node, Set<HNode> visited, Set<HNode> reachable) {
+
+ Set<HNode> outSet = getOutgoingNodeSet(node);
+ for (Iterator iterator = outSet.iterator(); iterator.hasNext();) {
+ HNode out = (HNode) iterator.next();
+
+ if (!visited.contains(out)) {
+ visited.add(out);
+ Set<HNode> reachableFromSCNodeSet = reachableFromSCNode(out);
+ mapNormalNodeToSCNodeReachToSet.put(out, reachableFromSCNodeSet);
+ if (out.isSkeleton() || out.isCombinationNode() || reachableFromSCNodeSet.size() > 0) {
+ reachable.add(out);
+ } else {
+ visited.add(out);
+ recurReachableNodeSet(out, visited, reachable);
+ }
+
+ }
+
+ }
+
+ }
+
+ private Set<HNode> reachableFromSCNode(HNode node) {
+ Set<HNode> visited = new HashSet<HNode>();
+ visited.add(node);
+ Set<HNode> reachable = new HashSet<HNode>();
+ recurReachableFromSCNode(node, reachable, visited);
+ return reachable;
+ }
+
+ private void recurReachableFromSCNode(HNode node, Set<HNode> reachable, Set<HNode> visited) {
+ Set<HNode> inNodeSet = getIncomingNodeSet(node);
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ if (inNode.isSkeleton() || inNode.isCombinationNode()) {
+ visited.add(inNode);
+ reachable.add(inNode);
+ } else if (!visited.contains(inNode)) {
+ visited.add(inNode);
+ recurReachableFromSCNode(inNode, reachable, visited);
+ }
+ }
+ }
+
public Set<HNode> getDirectlyReachableSkeletonCombinationNodeFrom(HNode node,
Set<HNode> combinationNodeSet) {
Set<HNode> reachable = new HashSet<HNode>();
}
public HNode getCombinationNode(Set<HNode> combineSet) {
+ assert isSCGraph();
if (!mapCombineNodeSetToCombinationNode.containsKey(combineSet)) {
- String name = "COMB" + (seed++);
+ String name = "COMB" + (LocationInference.locSeed++);
+ System.out.println("-NEW COMB NODE=" + name);
HNode node = new HNode(name);
node.setCombinationNode(true);
nodeSet.add(node);
Set<HNode> combineSet = (Set<HNode>) iterator.next();
System.out.println("--combineSet=" + combineSet);
HNode combinationNode = getCombinationNode(combineSet);
- System.out.println("--combinationNode=" + combinationNode);
+ System.out.println("--combinationNode=" + combinationNode + " combineSet=" + combineSet);
+
+ System.out.println("--hierarchynodes="
+ + simpleHierarchyGraph.getCombinationNodeSetByCombineNodeSet(combineSet));
+
+ Set<HNode> simpleHNodeSet =
+ simpleHierarchyGraph.getCombinationNodeSetByCombineNodeSet(combineSet);
+
+ // check whether a hnode in the simple hierarchy graph is the first node of the chain
+ // if all incoming combination nodes to the hnode have a different combination set from the
+ // hnode, it is the first node of the chain
+ for (Iterator iterator2 = simpleHNodeSet.iterator(); iterator2.hasNext();) {
+ HNode simpleHNode = (HNode) iterator2.next();
+ boolean isFirstNodeOfChain = true;
+ Set<HNode> incomingNodeSet = simpleHierarchyGraph.getIncomingNodeSet(simpleHNode);
+ for (Iterator iterator3 = incomingNodeSet.iterator(); iterator3.hasNext();) {
+ HNode inNode = (HNode) iterator3.next();
+ if (inNode.isCombinationNode()) {
+ Set<HNode> inNodeCombineSet =
+ simpleHierarchyGraph.getCombineSetByCombinationNode(inNode);
+ if (inNodeCombineSet.equals(combineSet)) {
+ isFirstNodeOfChain = false;
+ break;
+ }
+ }
+ }
+ simpleHNode.setDirectCombinationNode(isFirstNodeOfChain);
+ if (isFirstNodeOfChain) {
+ simpleHierarchyGraph.addFirstNodeOfChain(combineSet, simpleHNode);
+ System.out.println("IT IS THE FIRST NODE OF THE CHAIN:" + simpleHNode);
+ }
+ }
+
// add an edge from a skeleton node to a combination node
for (Iterator iterator2 = combineSet.iterator(); iterator2.hasNext();) {
HNode inSkeletonNode = (HNode) iterator2.next();
HNode outNode = getCombinationNode(combineNode);
addEdgeWithNoCycleCheck(combinationNode, outNode);
} else if (curNode.isSkeleton()) {
- // HNode dstNode = getHNode(curNode.getDescriptor());
+ // HNode dstNode2 = getHNode(curNode.getDescriptor());
HNode dstNode = getCurrentHNode(curNode);
+ // System.out.println("-----curNode=" + curNode + "------->" + dstNode + " dstNode2="
+ // + dstNode2);
addEdgeWithNoCycleCheck(combinationNode, dstNode);
}
}
- System.out.println("--");
+ // System.out.println("--");
}
}
- private void addCombinationNode(HNode curNode, Set<HNode> reachToSet, Set<HNode> reachableSet) {
- if (!mapSkeletonNodeSetToCombinationNode.containsKey(reachToSet)) {
- // need to create a new combination node
- String nodeName = "Comb" + (seed++);
- HNode newCombinationNode = new HNode(nodeName);
- newCombinationNode.setCombinationNode(true);
-
- nodeSet.add(newCombinationNode);
- mapSkeletonNodeSetToCombinationNode.put(reachToSet, newCombinationNode);
-
- for (Iterator iterator = reachToSet.iterator(); iterator.hasNext();) {
- HNode reachToNode = (HNode) iterator.next();
- addEdge(reachToNode, newCombinationNode);
- }
-
- }
-
- HNode combinationNode = mapSkeletonNodeSetToCombinationNode.get(reachToSet);
- for (Iterator iterator = reachableSet.iterator(); iterator.hasNext();) {
- HNode reachableNode = (HNode) iterator.next();
- addEdge(combinationNode, reachableNode);
- }
-
- }
-
- private Set<HNode> getSkeleteNodeSetReachTo(HNode node) {
+ public Set<HNode> getSkeleteNodeSetReachTo(HNode node) {
Set<HNode> reachToSet = new HashSet<HNode>();
Set<HNode> visited = new HashSet<HNode>();
+ // visited.add(node);
recurSkeletonReachTo(node, reachToSet, visited);
+ // obsolete!
// if a node reaches to one of elements in the reachToSet, we do not need to keep it
// because the node is not directly connected to the combination node
-
- removeRedundantReachToNodes(reachToSet);
+ // removeRedundantReachToNodes(reachToSet);
return reachToSet;
}
- private void removeRedundantReachToNodes(Set<HNode> reachToSet) {
-
- Set<HNode> toberemoved = new HashSet<HNode>();
- for (Iterator iterator = reachToSet.iterator(); iterator.hasNext();) {
- HNode cur = (HNode) iterator.next();
-
- for (Iterator iterator2 = reachToSet.iterator(); iterator2.hasNext();) {
- HNode dst = (HNode) iterator2.next();
- if (!cur.equals(dst) && reachTo(cur, dst)) {
- // it is redundant
- toberemoved.add(cur);
- }
- }
- }
- reachToSet.removeAll(toberemoved);
- }
-
private void recurSkeletonReachTo(HNode node, Set<HNode> reachToSet, Set<HNode> visited) {
Set<HNode> inSet = getIncomingNodeSet(node);
HNode inNode = (HNode) iterator.next();
if (inNode.isSkeleton()) {
+ visited.add(inNode);
reachToSet.add(inNode);
} else if (!visited.contains(inNode)) {
visited.add(inNode);
clone.setMapHNodeToDescSet(getMapHNodeToDescSet());
clone.setMapHNodetoMergeSet(getMapHNodetoMergeSet());
clone.setMapHNodeToCurrentHNode(getMapHNodeToCurrentHNode());
+ clone.setMapHNodeNameToCurrentHNode(getMapHNodeNameToCurrentHNode());
+
return clone;
}
+ public void setMapCombineNodeSetToCombinationNode(Map<Set<HNode>, HNode> in) {
+ mapCombineNodeSetToCombinationNode = in;
+ }
+
public Map<HNode, Set<HNode>> getMapHNodetoMergeSet() {
return mapMergeNodetoMergingSet;
}
HNode node = (HNode) iterator.next();
if (!node.isSkeleton()) {
Set<HNode> reachToSet = getSkeleteNodeSetReachTo(node);
+ // Set<HNode> tempSet = removeTransitivelyReachToSet(reachToSet);
+ // reachToSet = removeTransitivelyReachToSet(reachToSet);
+ Set<HNode> tempSet = reachToSet;
+ // System.out.println("$node=" + node + " reachToNodeSet=" + reachToSet + " tempSet="
+ // + tempSet);
if (reachToSet.size() > 1) {
// if (countSkeletonNodes(reachToSet) > 1) {
- System.out.println("-node=" + node + " reachToSet=" + reachToSet);
+ System.out.println("\n-node=" + node + " reachToSet=" + reachToSet);
System.out.println("-set combinationnode=" + node);
node.setCombinationNode(true);
mapCombinationNodeToCombineNodeSet.put(node, reachToSet);
+
+ // check if this node is the first node of the chain
+ // boolean isFirstNodeOfChain = false;
+ // Set<HNode> inNodeSet = getIncomingNodeSet(node);
+ // for (Iterator iterator2 = inNodeSet.iterator(); iterator2.hasNext();) {
+ // HNode inNode = (HNode) iterator2.next();
+ // if (inNode.isSkeleton()) {
+ // isFirstNodeOfChain = true;
+ // } else if (inNode.isCombinationNode()) {
+ // Set<HNode> inNodeReachToSet = getSkeleteNodeSetReachTo(inNode);
+ // if (!reachToSet.equals(inNodeReachToSet)) {
+ // isFirstNodeOfChain = true;
+ // }
+ // }
+ // }
+ //
+ // if (isFirstNodeOfChain) {
+ // node.setDirectCombinationNode(true);
+ // addFirstNodeOfChain(reachToSet, node);
+ // }
+
}
}
}
}
+ public void addFirstNodeOfChain(Set<HNode> combineSet, HNode firstNode) {
+
+ if (!mapCombineNodeSetToFirstNodeOfChainSet.containsKey(combineSet)) {
+ mapCombineNodeSetToFirstNodeOfChainSet.put(combineSet, new HashSet<HNode>());
+ }
+
+ mapCombineNodeSetToFirstNodeOfChainSet.get(combineSet).add(firstNode);
+
+ }
+
+ public Set<HNode> getFirstNodeOfCombinationNodeChainSet(Set<HNode> combineNodeSet) {
+ return mapCombineNodeSetToFirstNodeOfChainSet.get(combineNodeSet);
+ }
+
+ private Set<HNode> removeTransitivelyReachToSet(Set<HNode> reachToSet) {
+
+ Set<HNode> toberemoved = new HashSet<HNode>();
+ Set<HNode> visited = new HashSet<HNode>();
+ for (Iterator iterator = reachToSet.iterator(); iterator.hasNext();) {
+ HNode node = (HNode) iterator.next();
+ visited.add(node);
+ recurIsReachingTo(node, reachToSet, toberemoved, visited);
+ }
+
+ Set<HNode> rSet = new HashSet<HNode>();
+ rSet.addAll(reachToSet);
+ rSet.removeAll(toberemoved);
+ return rSet;
+ }
+
+ private void recurIsReachingTo(HNode curNode, Set<HNode> reachToSet, Set<HNode> toberemoved,
+ Set<HNode> visited) {
+ Set<HNode> inNodeSet = getIncomingNodeSet(curNode);
+
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ if (reachToSet.contains(inNode)) {
+ toberemoved.add(inNode);
+ } else if (!visited.contains(inNode)) {
+ visited.add(inNode);
+ recurIsReachingTo(inNode, reachToSet, toberemoved, visited);
+ }
+ }
+
+ }
+
public Map<HNode, Set<HNode>> getMapCombinationNodeToCombineNodeSet() {
return mapCombinationNodeToCombineNodeSet;
}
public void assignUniqueIndexToNode() {
int idx = 1;
+ // System.out.println("nodeSet=" + nodeSet);
for (Iterator iterator = nodeSet.iterator(); iterator.hasNext();) {
HNode node = (HNode) iterator.next();
mapHNodeToUniqueIndex.put(node, idx);
}
}
- public BasisSet computeBasisSet() {
+ public BasisSet computeBasisSet(Set<HNode> notGenerateSet) {
// assign a unique index to a node
assignUniqueIndexToNode();
for (Iterator iterator = nodeSet.iterator(); iterator.hasNext();) {
HNode node = (HNode) iterator.next();
+ if (notGenerateSet.contains(node)) {
+ System.out.println("%%%SKIP =" + node);
+ continue;
+ }
Set<Integer> basis = new HashSet<Integer>();
basis.addAll(BASISTOPELEMENT);
Set<HNode> reachableNodeSet = getReachableNodeSetFrom(node);
- System.out.println("node=" + node + " reachableNodeSet=" + reachableNodeSet);
-
+ // System.out.println("node=" + node + " reachableNodeSet=" + reachableNodeSet);
+ // System.out.println("mapHNodeToUniqueIndex.get(node)=" + mapHNodeToUniqueIndex.get(node));
// if a node is reachable from the current node
// need to remove the index of the reachable node from the basis
basis.remove(getHNodeIndex(node));
for (Iterator iterator2 = reachableNodeSet.iterator(); iterator2.hasNext();) {
HNode reachableNode = (HNode) iterator2.next();
- System.out.println("reachableNode=" + reachableNode);
+ // System.out.println("reachableNode=" + reachableNode);
+ // System.out.println("getHNodeIndex(reachableNode))="
+ // + mapHNodeToUniqueIndex.get(reachableNode));
int idx = getHNodeIndex(reachableNode);
basis.remove(idx);
}
}
public void writeGraph() {
+ writeGraph(false);
+ }
+
+ public void writeGraph(boolean isSimple) {
String graphName = "hierarchy" + name;
graphName = graphName.replaceAll("[\\W]", "");
+ if (isSimple) {
+ graphName += "_PAPER";
+ }
+
+ // System.out.println("***graphName=" + graphName + " node siz=" + nodeSet.size());
+
try {
BufferedWriter bw = new BufferedWriter(new FileWriter(graphName + ".dot"));
if (outSet.size() == 0) {
if (!addedNodeSet.contains(u)) {
- drawNode(bw, u);
+ if (!isSimple) {
+ drawNode(bw, u);
+ } else {
+ drawNodeName(bw, u);
+ }
addedNodeSet.add(u);
}
} else {
for (Iterator iterator = outSet.iterator(); iterator.hasNext();) {
HNode v = (HNode) iterator.next();
if (!addedNodeSet.contains(u)) {
- drawNode(bw, u);
+ if (!isSimple) {
+ drawNode(bw, u);
+ } else {
+ drawNodeName(bw, u);
+ }
addedNodeSet.add(u);
}
if (!addedNodeSet.contains(v)) {
- drawNode(bw, v);
+ if (!isSimple) {
+ drawNode(bw, v);
+ } else {
+ drawNodeName(bw, v);
+ }
addedNodeSet.add(v);
}
bw.write("" + u.getName() + " -> " + v.getName() + ";\n");
return str;
}
+ private void drawNodeName(BufferedWriter bw, HNode node) throws IOException {
+ String nodeName = node.getNamePropertyString();
+ bw.write(node.getName() + " [label=\"" + nodeName + "\"]" + ";\n");
+ }
+
private void drawNode(BufferedWriter bw, HNode node) throws IOException {
String nodeName;
if (node.isMergeNode()) {
nodeName = node.getNamePropertyString();
Set<HNode> mergeSet = mapMergeNodetoMergingSet.get(node);
+ // System.out.println("node=" + node + " mergeSet=" + mergeSet);
nodeName += ":" + convertMergeSetToString(mergeSet);
} else {
nodeName = node.getNamePropertyString();
return max;
}
+ public int computeDistance(HNode startNode, Set<HNode> endNodeSet, Set<HNode> combineSet) {
+ System.out.println("#####computeDistance startNode=" + startNode + " endNode=" + endNodeSet);
+ return recur_computeDistance(startNode, startNode, endNodeSet, 0, combineSet);
+ }
+
+ private int recur_computeDistance(HNode startNode, HNode curNode, Set<HNode> endNodeSet,
+ int count, Set<HNode> combineSet) {
+
+ if (!curNode.equals(startNode)) {
+ // do not count the start node
+ count++;
+ }
+
+ if (endNodeSet.contains(curNode)) {
+ // it reaches to one of endNodeSet
+ return count;
+ }
+
+ Set<HNode> inNodeSet = getIncomingNodeSet(curNode);
+
+ int curMaxDistance = 0;
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ // traverse more...
+
+ if (inNode.isCombinationNode() && combineSet != null) {
+ // check if inNode have the same combination set of the starting node
+ Set<HNode> inNodeCombineSet = getCombineSetByCombinationNode(inNode);
+ if (!inNodeCombineSet.equals(combineSet)) {
+ continue;
+ }
+ }
+
+ System.out.println(" traverse more to" + inNode + " before-count=" + count);
+ int dist = recur_computeDistance(startNode, inNode, endNodeSet, count, combineSet);
+ if (dist > curMaxDistance) {
+ curMaxDistance = dist;
+ }
+ }
+ return curMaxDistance;
+ }
+
+ public int computeDistance2(HNode startNode, Set<HNode> endNodeSet, Set<HNode> combineSet) {
+ System.out.println("#####computeDistance startNode=" + startNode + " endNode=" + endNodeSet);
+ return recur_computeDistance2(startNode, startNode, endNodeSet, 0, 0, combineSet);
+ }
+
+ private int recur_computeDistance2(HNode startNode, HNode curNode, Set<HNode> endNodeSet,
+ int sharedCount, int nonSharedCount, Set<HNode> combineSet) {
+
+ if (!curNode.equals(startNode)) {
+ // do not count the start node
+ if (curNode.isSharedNode()) {
+ sharedCount++;
+ } else {
+ nonSharedCount++;
+ }
+ }
+
+ if (endNodeSet.contains(curNode)) {
+ // it reaches to one of endNodeSet
+ if (sharedCount > nonSharedCount) {
+ return sharedCount;
+ } else {
+ return nonSharedCount;
+ }
+ }
+
+ Set<HNode> inNodeSet = getIncomingNodeSet(curNode);
+
+ int curMaxDistance = 0;
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ // traverse more...
+
+ if (inNode.isCombinationNode() && combineSet != null) {
+ // check if inNode have the same combination set of the starting node
+ Set<HNode> inNodeCombineSet = getCombineSetByCombinationNode(inNode);
+ if (!inNodeCombineSet.equals(combineSet)) {
+ continue;
+ }
+ }
+
+ System.out.println(" traverse more to" + inNode + " sC=" + sharedCount + " nC="
+ + nonSharedCount);
+ int dist =
+ recur_computeDistance2(startNode, inNode, endNodeSet, sharedCount, nonSharedCount,
+ combineSet);
+ if (dist > curMaxDistance) {
+ curMaxDistance = dist;
+ }
+ }
+ return curMaxDistance;
+ }
+
+ public int countNonSharedNode(HNode startNode, Set<HNode> endNodeSet) {
+ System.out.println("countNonSharedNode startNode=" + startNode + " endNode=" + endNodeSet);
+ return recur_countNonSharedNode(startNode, endNodeSet, 0);
+ }
+
+ private int recur_countNonSharedNode(HNode startNode, Set<HNode> endNodeSet, int count) {
+
+ Set<HNode> inNodeSet = getIncomingNodeSet(startNode);
+
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ if (endNodeSet.contains(inNode)) {
+ count++;
+ return count;
+ } else {
+ if (!inNode.isSharedNode()) {
+ count++;
+ }
+ return recur_countNonSharedNode2(inNode, endNodeSet, count);
+ }
+ }
+
+ return 0;
+ }
+
+ public int countNonSharedNode2(HNode startNode, Set<HNode> endNodeSet) {
+ System.out.println("countNonSharedNode startNode=" + startNode + " endNode=" + endNodeSet);
+ return recur_countNonSharedNode2(startNode, endNodeSet, 0);
+ }
+
+ private int recur_countNonSharedNode2(HNode startNode, Set<HNode> endNodeSet, int count) {
+
+ Set<HNode> inNodeSet = getIncomingNodeSet(startNode);
+
+ if (inNodeSet.size() == 0) {
+ // it is directly connected to the TOP node
+ }
+
+ for (Iterator iterator = inNodeSet.iterator(); iterator.hasNext();) {
+ HNode inNode = (HNode) iterator.next();
+ if (endNodeSet.contains(inNode)) {
+ return count;
+ } else {
+ if (!inNode.isSharedNode()) {
+ count++;
+ }
+ return recur_countNonSharedNode2(inNode, endNodeSet, count);
+ }
+ }
+
+ // System.out.println("startNode=" + startNode + " inNodeSet=" + inNodeSet);
+ // HNode inNode = inNodeSet.iterator().next();
+ return -1;
+ }
}
projects / IRC.git / blobdiff