package org.ntlab.deltaViewer;
import java.util.AbstractMap;
import java.util.ArrayList;
import java.util.Collections;
import java.util.HashMap;
import java.util.HashSet;
import java.util.List;
import java.util.Map;
import java.util.Set;
import org.ntlab.deltaExtractor.Alias;
import org.ntlab.deltaExtractor.Alias.AliasType;
import org.ntlab.deltaExtractor.IAliasCollector;
import org.ntlab.trace.ArrayAccess;
import org.ntlab.trace.ArrayCreate;
import org.ntlab.trace.ArrayUpdate;
import org.ntlab.trace.FieldAccess;
import org.ntlab.trace.FieldUpdate;
import org.ntlab.trace.MethodExecution;
import org.ntlab.trace.MethodInvocation;
import org.ntlab.trace.Reference;
import org.ntlab.trace.Statement;
import org.ntlab.trace.TracePoint;
import com.mxgraph.model.mxICell;
import com.mxgraph.util.mxPoint;
public class CollaborationLayout implements IObjectLayout {
private static final int angleStep = 15;
private mxPoint coordinatorPoint = new mxPoint(0, 100);
private double step;
private double padding;
@Override
public void execute(IObjectCallGraph objectCallGraph, IAliasCollector aliasCollector, Map<String, ObjectVertex> objectToVertexMap) {
step = 150;
padding = 200;
// Extract the bottom reference.
TracePoint relatedPt = objectCallGraph.getRelatedPoints().get(objectCallGraph.getRelatedPoints().size() - 1);
Statement relatedSt = relatedPt.getStatement();
String bottomSrcObjId = null;
String bottomDstObjId = null;
if (relatedPt.isMethodEntry()) {
// this to another (parameter)
Alias lastAlias = aliasCollector.getAliasList().get(aliasCollector.getAliasList().size() - 1);
if (lastAlias.getAliasType() == Alias.AliasType.FORMAL_PARAMETER) {
bottomSrcObjId = relatedPt.getMethodExecution().getThisObjId();
bottomDstObjId = lastAlias.getObjectId();
}
}
if (bottomSrcObjId == null || bottomDstObjId == null) {
if (relatedSt instanceof FieldUpdate) {
// container to component
bottomSrcObjId = ((FieldUpdate) relatedSt).getContainerObjId();
bottomDstObjId = ((FieldUpdate) relatedSt).getValueObjId();
} else if (relatedSt instanceof ArrayUpdate) {
// container to component
bottomSrcObjId = ((ArrayUpdate) relatedSt).getArrayObjectId();
bottomDstObjId = ((ArrayUpdate) relatedSt).getValueObjectId();
} else if (relatedSt instanceof MethodInvocation) {
MethodInvocation methodInvStatement = (MethodInvocation) relatedSt;
MethodExecution calledMethodExec = methodInvStatement.getCalledMethodExecution();
String methodSignature = calledMethodExec.getSignature();
if (calledMethodExec.isCollectionType()
&& (methodSignature.contains("add(")
|| methodSignature.contains("set(")
|| methodSignature.contains("put(")
|| methodSignature.contains("push(")
|| methodSignature.contains("addElement("))) {
// container to component
bottomSrcObjId = calledMethodExec.getThisObjId();
bottomDstObjId = calledMethodExec.getArguments().get(0).getId();
} else {
// this to another
bottomSrcObjId = methodInvStatement.getThisObjId();
bottomDstObjId = calledMethodExec.getReturnValue().getId();
}
} else {
return;
}
}
// Extract the reference access history.
List<Reference> references = new ArrayList<>(objectCallGraph.getReferences());
Map<Reference, List<Integer>> referenceHistory = new HashMap<>();
int order = 0;
for (Alias a: aliasCollector.getAliasList()) {
int idx = -1;
if (a.getAliasType() == AliasType.FIELD) {
Reference ref = null;
if (a.getOccurrencePoint().getStatement() instanceof FieldAccess) {
FieldAccess f = (FieldAccess) a.getOccurrencePoint().getStatement();
ref = new Reference(f.getContainerObjId(), f.getValueObjId(), f.getContainerClassName(), f.getValueClassName());
} else if (a.getOccurrencePoint().getStatement() instanceof MethodInvocation) {
// A call to an enclosing instance.
MethodExecution m = a.getMethodExecution();
MethodInvocation i = (MethodInvocation) a.getOccurrencePoint().getStatement() ;
ref = new Reference(m.getThisObjId(), a.getObjectId(), m.getThisClassName(), i.getCalledMethodExecution().getArguments().get(0).getActualType());
}
idx = references.indexOf(ref);
} else if (a.getAliasType() == AliasType.ARRAY_ELEMENT) {
ArrayAccess aa = (ArrayAccess) a.getOccurrencePoint().getStatement();
idx = references.indexOf(new Reference(aa.getArrayObjectId(), aa.getValueObjectId(), aa.getArrayClassName(), aa.getValueClassName()));
} else if (a.getAliasType() == AliasType.RETURN_VALUE) {
MethodExecution methodExec = a.getMethodExecution();
if (methodExec.getSignature().contains("List.get(") ||
methodExec.getSignature().contains("Map.get(") ||
methodExec.getSignature().contains(".next()") ||
methodExec.getSignature().contains(".iterator()") ||
methodExec.getSignature().contains(".listIterator()")) {
String srcObjId = methodExec.getThisObjId();
String dstObjId = methodExec.getReturnValue().getId();
String srcClassName = methodExec.getThisClassName();
String dstClassName = methodExec.getReturnValue().getActualType();
idx = references.indexOf(new Reference(srcObjId, dstObjId, srcClassName, dstClassName));
}
} else if (a.getAliasType() == AliasType.CONSTRACTOR_INVOCATION) {
MethodInvocation c = (MethodInvocation) a.getOccurrencePoint().getStatement();
String srcObjId = a.getMethodExecution().getThisObjId();
String dstObjId = c.getCalledMethodExecution().getThisObjId();
String srcClassName = a.getMethodExecution().getThisClassName();
String dstClassName = c.getCalledMethodExecution().getThisClassName();
idx = references.indexOf(new Reference(srcObjId, dstObjId, srcClassName, dstClassName));
} else if (a.getAliasType() == AliasType.ARRAY_CREATE) {
ArrayCreate ac = (ArrayCreate) a.getOccurrencePoint().getStatement();
String srcObjId = a.getMethodExecution().getThisObjId();
String srcClassName = a.getMethodExecution().getThisClassName();
idx = references.indexOf(new Reference(srcObjId, ac.getArrayObjectId(), srcClassName, ac.getArrayClassName()));
} else if (a.getAliasType() == AliasType.THIS) {
Statement st = a.getOccurrencePoint().getStatement();
if (st instanceof MethodInvocation) {
MethodExecution methodExec = ((MethodInvocation) st).getCalledMethodExecution();
if (methodExec.isStatic()) {
// For calls to a static method.
String dstClassName = methodExec.getThisClassName();
String srcClassName = methodExec.getCallerMethodExecution().getThisClassName();
String dstObjId = methodExec.getThisObjId() + ":" + dstClassName;
String srcObjId = null;
if (!a.getMethodExecution().isStatic()) {
srcObjId = methodExec.getCallerMethodExecution().getThisObjId();
} else {
srcObjId = methodExec.getCallerMethodExecution().getThisObjId() + ":" + srcClassName;
}
Reference r = new Reference(srcObjId, dstObjId, srcClassName, dstClassName);
idx = references.indexOf(r);
if (idx < 0) {
references.add(r);
idx = references.indexOf(r);
}
}
}
}
if (idx >= 0) {
Reference r = references.get(idx);
List<Integer> rHIstory = referenceHistory.get(r);
if (rHIstory == null) {
rHIstory = new ArrayList<>();
referenceHistory.put(r, rHIstory);
}
rHIstory.add(order);
}
order++;
}
// Construct the object graph.
Map<String, List<Reference>> preds = new HashMap<>();
Map<String, List<Reference>> succs = new HashMap<>();
for (Reference r: references) {
String dstObjId = r.getDstObjectId();
List<Reference> pre = preds.get(dstObjId);
if (pre == null) {
pre = new ArrayList<Reference>();
preds.put(dstObjId, pre);
}
pre.add(r);
String srcObjId = r.getSrcObjectId();
List<Reference> suc = succs.get(srcObjId);
if (suc == null) {
suc = new ArrayList<Reference>();
succs.put(srcObjId, suc);
}
suc.add(r);
}
// Extract the source side and destination side paths.
String topObjId = objectCallGraph.getStartPoints().get(0).getThisObjId();
List<Reference> dstSide = new ArrayList<>();
List<String> dstSideObjects = new ArrayList<>();
String dstObjId = bottomDstObjId;
dstSideObjects.add(dstObjId);
while (!dstObjId.equals(topObjId)) {
if (preds.get(dstObjId) != null) {
Reference minRef = getFirstReferece(preds.get(dstObjId), referenceHistory, true);
dstSide.add(minRef);
dstObjId = minRef.getSrcObjectId();
} else {
dstSide.add(null);
dstObjId = topObjId;
}
dstSideObjects.add(dstObjId);
}
List<Reference> srcSide = new ArrayList<>();
List<String> srcSideObjects = new ArrayList<>();
String srcObjId = bottomSrcObjId;
srcSideObjects.add(srcObjId);
while (!srcObjId.equals(topObjId)) {
if (preds.get(srcObjId) != null) {
Reference maxRef = getFirstReferece(preds.get(srcObjId), referenceHistory, false);
srcSide.add(maxRef);
srcObjId = maxRef.getSrcObjectId();
} else {
srcSide.add(null);
srcObjId = topObjId;
}
srcSideObjects.add(srcObjId);
}
// Fix the confluent points.
List<Map.Entry<String, Integer>> confluPoints = new ArrayList<>();
boolean bConfluent = false;
int hight = 0;
int width = -1;
int dstHight = 0;
int srcHight = 0;
for (String srcObj: srcSideObjects) {
if (dstSideObjects.contains(srcObj)) {
if (!bConfluent) {
int dstDiff = dstSideObjects.indexOf(srcObj) - dstHight;
int srcDiff = srcSideObjects.indexOf(srcObj) - srcHight;
dstHight += dstDiff;
srcHight += srcDiff;
if (dstDiff > srcDiff) {
hight += dstDiff;
} else {
hight += srcDiff;
}
if (width < 0) width = dstHight;
confluPoints.add(new AbstractMap.SimpleEntry(srcObj, hight));
bConfluent = true;
} else {
hight++;
}
} else {
bConfluent = false;
}
}
coordinatorPoint.setX(coordinatorPoint.getX() + step * width + padding);
double xCor = coordinatorPoint.getX();
double yCor = coordinatorPoint.getY();
Set<String> fixed = new HashSet<>();
for (Map.Entry<String, Integer> confluPoint: confluPoints) {
setVertexCoordinate(objectToVertexMap.get(confluPoint.getKey()), xCor, yCor + (hight - confluPoint.getValue()) * step);
fixed.add(confluPoint.getKey());
}
// Fix the bottom objects.
Map.Entry<String, Integer> firstConfl = confluPoints.get(0);
dstHight = hight - firstConfl.getValue() + dstSideObjects.indexOf(firstConfl.getKey());
srcHight = hight - firstConfl.getValue() + srcSideObjects.indexOf(firstConfl.getKey());
int width2 = srcSideObjects.indexOf(firstConfl.getKey());
setVertexCoordinate(objectToVertexMap.get(bottomDstObjId), padding, yCor + dstHight * step);
fixed.add(bottomDstObjId);
setVertexCoordinate(objectToVertexMap.get(bottomSrcObjId), xCor + width2 * step, yCor + srcHight * step);
fixed.add(bottomSrcObjId);
// Fix the destination side, source side and common path.
int srcIndex = 0;
int dstIndex = 0;
double dstDirection = 60;
double srcDirection = 120;
for (Map.Entry<String, Integer> confluPoint: confluPoints) {
String conflObj = confluPoint.getKey();
// Fix the destination side path.
List<String> path = dstSideObjects.subList(dstIndex, dstSideObjects.indexOf(conflObj) + 1);
if (path.size() > 2) fixPath(path, dstDirection, objectToVertexMap, fixed, true);
dstDirection = 120;
dstIndex = dstSideObjects.indexOf(conflObj);
// Fix the source side path.
path = srcSideObjects.subList(srcIndex, srcSideObjects.indexOf(conflObj) + 1);
if (path.size() > 2) fixPath(path, srcDirection, objectToVertexMap, fixed, true);
srcDirection = 60;
srcIndex = srcSideObjects.indexOf(conflObj);
// Fix the common path.
int commonHight = confluPoint.getValue();
for (;;) {
commonHight++;
srcIndex++;
dstIndex++;
if (srcIndex >= srcSideObjects.size() || dstIndex >= dstSideObjects.size()) break;
if (!srcSideObjects.get(srcIndex).equals(dstSideObjects.get(dstIndex))) break;
String commonObjId = srcSideObjects.get(srcIndex);
setVertexCoordinate(objectToVertexMap.get(commonObjId), xCor, yCor + (hight - commonHight) * step);
fixed.add(commonObjId);
}
srcIndex--;
dstIndex--;
}
// Fix the branches from the destination side path.
for (Reference ref: dstSide) {
if (ref != null) {
List<Reference> nextRefs = new ArrayList<>(preds.get(ref.getDstObjectId()));
nextRefs = new ArrayList<>(nextRefs);
nextRefs.remove(ref);
double direction = getDirection(ref, objectToVertexMap) - angleStep;
while (nextRefs.size() > 0) {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, true);
List<String> path = new ArrayList<>();
path.add(firstRef.getDstObjectId());
traversePreds(preds, firstRef, direction, true, referenceHistory, objectToVertexMap, fixed, path);
nextRefs.remove(firstRef);
direction = getDirection(firstRef, objectToVertexMap) - angleStep;
}
}
}
// Fix the branches from the source side path.
for (Reference ref: srcSide) {
if (ref != null) {
List<Reference> nextRefs = new ArrayList<>(preds.get(ref.getDstObjectId()));
nextRefs = new ArrayList<>(nextRefs);
nextRefs.remove(ref);
double direction = getDirection(ref, objectToVertexMap) + angleStep;
while (nextRefs.size() > 0) {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, false);
List<String> path = new ArrayList<>();
path.add(firstRef.getDstObjectId());
traversePreds(preds, firstRef, direction, false, referenceHistory, objectToVertexMap, fixed, path);
nextRefs.remove(firstRef);
direction = getDirection(firstRef, objectToVertexMap) + angleStep;
}
}
}
// Fix the reverse branches from the destination side path.
Collections.reverse(dstSide);
for (Reference ref: dstSide) {
if (ref != null) {
List<Reference> nextRefs = new ArrayList<>(succs.get(ref.getSrcObjectId()));
if (nextRefs.size() > 1) {
nextRefs = new ArrayList<>(nextRefs);
List<Reference> nextRefs2 = new ArrayList<>();
do {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, true);
nextRefs2.add(firstRef);
nextRefs.remove(firstRef);
} while (nextRefs.size() > 1);
nextRefs2.add(nextRefs.remove(0));
if (nextRefs2.indexOf(ref) > 0) {
nextRefs = nextRefs2.subList(0, nextRefs2.indexOf(ref));
double direction = getDirection(ref, objectToVertexMap) + 180 - angleStep;
Collections.reverse(nextRefs);
for (Reference r: nextRefs) {
List<String> path = new ArrayList<>();
path.add(r.getSrcObjectId());
traverseSuccs(succs, r, direction, true, referenceHistory, objectToVertexMap, fixed, path);
direction = getDirection(r, objectToVertexMap) + 180 - angleStep;
}
}
if (nextRefs2.indexOf(ref) < nextRefs2.size() - 1) {
nextRefs = nextRefs2.subList(nextRefs2.indexOf(ref) + 1, nextRefs2.size());
double direction = getDirection(ref, objectToVertexMap) + 180 + angleStep;
for (Reference r: nextRefs) {
List<String> path = new ArrayList<>();
path.add(r.getSrcObjectId());
traverseSuccs(succs, r, direction, true, referenceHistory, objectToVertexMap, fixed, path);
direction = getDirection(r, objectToVertexMap) + 180 + angleStep;
}
}
}
// nextRefs = new ArrayList<>(nextRefs);
// nextRefs.remove(ref);
// double direction = getDirection(ref, objectToVertexMap) + 180 + angleStep;
// while (nextRefs.size() > 0) {
// Reference firstRef = getFirstReferece(nextRefs, referenceHistory, true);
// List<String> path = new ArrayList<>();
// path.add(firstRef.getSrcObjectId());
// traverseSuccs(succs, firstRef, direction, true, referenceHistory, objectToVertexMap, fixed, path);
// nextRefs.remove(firstRef);
// direction = getDirection(firstRef, objectToVertexMap) + 180 + angleStep;
// }
}
}
// Fix the reverse branches from the source side path.
Collections.reverse(srcSide);
for (Reference ref: srcSide) {
if (ref != null) {
List<Reference> nextRefs = new ArrayList<>(succs.get(ref.getSrcObjectId()));
if (nextRefs.size() > 1) {
nextRefs = new ArrayList<>(nextRefs);
List<Reference> nextRefs2 = new ArrayList<>();
do {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, false);
nextRefs2.add(firstRef);
nextRefs.remove(firstRef);
} while (nextRefs.size() > 1);
nextRefs2.add(nextRefs.remove(0));
if (nextRefs2.indexOf(ref) > 0) {
nextRefs = nextRefs2.subList(0, nextRefs2.indexOf(ref));
double direction = getDirection(ref, objectToVertexMap) + 180 + angleStep;
Collections.reverse(nextRefs);
for (Reference r: nextRefs) {
List<String> path = new ArrayList<>();
path.add(r.getSrcObjectId());
traverseSuccs(succs, r, direction, false, referenceHistory, objectToVertexMap, fixed, path);
direction = getDirection(r, objectToVertexMap) + 180 + angleStep;
}
}
if (nextRefs2.indexOf(ref) < nextRefs2.size() - 1) {
nextRefs = nextRefs2.subList(nextRefs2.indexOf(ref) + 1, nextRefs2.size());
double direction = getDirection(ref, objectToVertexMap) + 180 - angleStep;
for (Reference r: nextRefs) {
List<String> path = new ArrayList<>();
path.add(r.getSrcObjectId());
traverseSuccs(succs, r, direction, false, referenceHistory, objectToVertexMap, fixed, path);
direction = getDirection(r, objectToVertexMap) + 180 - angleStep;
}
}
}
// List<Reference> nextRefs = new ArrayList<>(succs.get(ref.getSrcObjectId()));
// nextRefs = new ArrayList<>(nextRefs);
// nextRefs.remove(ref);
// double direction = getDirection(ref, objectToVertexMap) + 180 - angleStep;
// while (nextRefs.size() > 0) {
// Reference firstRef = getFirstReferece(nextRefs, referenceHistory, false);
// List<String> path = new ArrayList<>();
// path.add(firstRef.getSrcObjectId());
// traverseSuccs(succs, firstRef, direction, false, referenceHistory, objectToVertexMap, fixed, path);
// nextRefs.remove(firstRef);
// direction = getDirection(firstRef, objectToVertexMap) + 180 - angleStep;
// }
}
}
}
private double getDirection(Reference ref, Map<String, ObjectVertex> objToVtx) {
ObjectVertex src = objToVtx.get(ref.getSrcObjectId());
ObjectVertex dst = objToVtx.get(ref.getDstObjectId());
return Math.toDegrees(Math.atan2(dst.getY() - src.getY(), src.getX() - dst.getX()));
}
private Reference getFirstReferece(List<Reference> refs, Map<Reference, List<Integer>> referenceHistory, boolean bLeftFirst) {
double first = 0.0;
Reference firstRef = null;
for (Reference ref: refs) {
double avgOrder = 0.0;
if (referenceHistory.get(ref) != null) {
for (int ord: referenceHistory.get(ref)) {
avgOrder += (double) ord;
}
avgOrder /= ((double) referenceHistory.get(ref).size());
}
if (firstRef == null || (bLeftFirst && avgOrder < first) || (!bLeftFirst && avgOrder > first)) {
firstRef = ref;
first = avgOrder;
}
}
return firstRef;
}
private void traversePreds(Map<String, List<Reference>> preds, Reference ref, double direction, boolean bLeftFirst, Map<Reference, List<Integer>> referenceHistory, Map<String, ObjectVertex> objToVtx, Set<String> fixed, List<String> path) {
String curObj = ref.getSrcObjectId();
path.add(curObj);
if (fixed.contains(curObj)) {
if (path.size() > 2) fixPath(path, direction, objToVtx, fixed, true);
return;
}
List<Reference> nextRefs = preds.get(curObj);
if (nextRefs == null || nextRefs.size() == 0) {
if (path.size() >= 2) fixPath(path, direction, objToVtx, fixed, false);
return;
}
nextRefs = new ArrayList<>(nextRefs);
do {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, bLeftFirst);
traversePreds(preds, firstRef, direction, bLeftFirst, referenceHistory, objToVtx, fixed, path);
path = new ArrayList<>();
path.add(curObj);
nextRefs.remove(firstRef);
direction = getDirection(firstRef, objToVtx);
if (bLeftFirst) {
direction -= angleStep;
} else {
direction += angleStep;
}
} while (nextRefs.size() > 0);
return;
}
private void traverseSuccs(Map<String, List<Reference>> succs, Reference ref, double direction, boolean bLeftFirst, Map<Reference, List<Integer>> referenceHistory, Map<String, ObjectVertex> objToVtx, Set<String> fixed, List<String> path) {
String curObj = ref.getDstObjectId();
path.add(curObj);
if (fixed.contains(curObj)) {
if (path.size() > 2) fixPath(path, direction, objToVtx, fixed, true);
return;
}
List<Reference> nextRefs = succs.get(curObj);
if (nextRefs == null || nextRefs.size() == 0) {
if (path.size() >= 2) fixPath(path, direction, objToVtx, fixed, false);
return;
}
nextRefs = new ArrayList<>(nextRefs);
do {
Reference firstRef = getFirstReferece(nextRefs, referenceHistory, bLeftFirst);
traverseSuccs(succs, firstRef, direction, bLeftFirst, referenceHistory, objToVtx, fixed, path);
path = new ArrayList<>();
path.add(curObj);
nextRefs.remove(firstRef);
direction = getDirection(firstRef, objToVtx) + 180;
if (bLeftFirst) {
direction += angleStep;
} else {
direction -= angleStep;
}
} while (nextRefs.size() > 0);
return;
}
private void fixPath(List<String> path, double direction, Map<String, ObjectVertex> objToVtx, Set<String> fixed, boolean bClose) {
if (path.size() < 2) return;
ObjectVertex start = objToVtx.get(path.get(0));
double x = start.getX();
double y = start.getY();
double dirY = -Math.sin(Math.toRadians(direction));
double dirX = Math.cos(Math.toRadians(direction));
if (!bClose) {
// straight line
for (int i = 1; i < path.size(); i++) {
x += step * dirX;
y += step * dirY;
setVertexCoordinate(objToVtx.get(path.get(i)), x, y);
fixed.add(path.get(i));
}
} else {
ObjectVertex end = objToVtx.get(path.get(path.size() - 1));
double diffX = end.getX() - start.getX();
double diffY = end.getY() - start.getY();
double distance = Math.sqrt(diffX * diffX + diffY * diffY);
diffX /= distance;
diffY /= distance;
double outer = dirX * diffY - dirY * diffX;
double centerX, centerY, vecX, vecY;
double theta = Math.acos(diffX * dirX + diffY * dirY);
double radius = distance / 2 / Math.sin(theta);
if (outer > 0) {
vecX = -dirY;
vecY = dirX;
theta = theta * 2.0 / (double) (path.size() - 1);
} else if (outer < 0) {
vecX = dirY;
vecY = -dirX;
theta = -theta * 2.0 / (double) (path.size() - 1);
} else {
// straight line
diffX *= distance / (double) (path.size() - 1);
diffY *= distance / (double) (path.size() - 1);
for (int i = 1; i < path.size(); i++) {
x += diffX;
y += diffY;
setVertexCoordinate(objToVtx.get(path.get(i)), x, y);
fixed.add(path.get(i));
}
return;
}
// arc
centerX = x + radius * vecX;
centerY = y + radius * vecY;
for (int i = 1; i < path.size() - 1; i++) {
double tmp = vecX * Math.cos(theta) - vecY * Math.sin(theta);
vecY = vecX * Math.sin(theta) + vecY * Math.cos(theta);
vecX = tmp;
setVertexCoordinate(objToVtx.get(path.get(i)), centerX - radius * vecX, centerY - radius * vecY);
fixed.add(path.get(i));
}
}
}
private void setVertexCoordinate(ObjectVertex vertex, double x, double y) {
vertex.setX(x);
vertex.setY(y);
vertex.setInitialPoint(x, y);
}
}
