public Set<InferenceVariable> getDependencies(InferenceSession session) {
final Set<InferenceVariable> dependencies = new LinkedHashSet<InferenceVariable>();
for (List<PsiType> boundTypes : myBounds.values()) {
if (boundTypes != null) {
for (PsiType bound : boundTypes) {
session.collectDependencies(bound, dependencies);
}
}
}
if (!session.hasCapture(this) && dependencies.isEmpty()) {
return dependencies;
}
if (!session.hasCapture(this)) {
return dependencies;
}
for (Iterator<InferenceVariable> iterator = dependencies.iterator(); iterator.hasNext(); ) {
if (!session.hasCapture(iterator.next())) {
iterator.remove();
}
}
session.collectCaptureDependencies(this, dependencies);
return dependencies;
}
@NotNull
public static PsiElement[] findSuperElements(@NotNull PsiElement element) {
if (element instanceof PsiClass) {
PsiClass aClass = (PsiClass) element;
List<PsiClass> allSupers = new ArrayList<>(Arrays.asList(aClass.getSupers()));
for (Iterator<PsiClass> iterator = allSupers.iterator(); iterator.hasNext(); ) {
PsiClass superClass = iterator.next();
if (CommonClassNames.JAVA_LANG_OBJECT.equals(superClass.getQualifiedName()))
iterator.remove();
}
return allSupers.toArray(new PsiClass[allSupers.size()]);
}
if (element instanceof PsiMethod) {
PsiMethod method = (PsiMethod) element;
if (method.isConstructor()) {
PsiMethod constructorInSuper = PsiSuperMethodUtil.findConstructorInSuper(method);
if (constructorInSuper != null) {
return new PsiMethod[] {constructorInSuper};
}
} else {
PsiMethod[] superMethods = method.findSuperMethods(false);
if (superMethods.length == 0) {
PsiMethod superMethod = getSiblingInheritedViaSubClass(method);
if (superMethod != null) {
superMethods = new PsiMethod[] {superMethod};
}
}
return superMethods;
}
}
return PsiElement.EMPTY_ARRAY;
}
private void updateFragments(int start, int end, @NotNull String replace) {
int docStart = psiToDocumentOffset(start);
int docEnd = psiToDocumentOffset(end);
TextRange startRange = findFragment(docStart);
TextRange endRange = findFragment(docEnd);
myPsiText = myPsiText.delete(start, end).insert(start, replace);
TextRange newFragment =
new TextRange(
startRange != null ? startRange.getStartOffset() : docStart,
endRange != null ? endRange.getEndOffset() : docEnd);
CharSequence newReplacement =
myPsiText.subSequence(
documentToPsiOffset(newFragment.getStartOffset(), false),
documentToPsiOffset(newFragment.getEndOffset(), true)
+ replace.length()
- (end - start));
for (Iterator<TextRange> iterator = myAffectedFragments.keySet().iterator();
iterator.hasNext(); ) {
if (iterator.next().intersects(newFragment)) {
iterator.remove();
}
}
myAffectedFragments.put(newFragment, newReplacement);
}
private static void retainOnlyJarsAndDirectories(List<VirtualFile> woSdk) {
for (Iterator<VirtualFile> iterator = woSdk.iterator(); iterator.hasNext(); ) {
VirtualFile file = iterator.next();
final VirtualFile local = ArchiveVfsUtil.getVirtualFileForJar(file);
final boolean dir = file.isDirectory();
final String name = file.getName();
if (LOG.isDebugEnabled()) {
LOG.debug(
"Considering: "
+ file.getPath()
+ "; local="
+ local
+ "; dir="
+ dir
+ "; name="
+ name);
}
if (dir || local != null) {
continue;
}
if (name.endsWith(".jar")) {
continue;
}
LOG.debug("Removing");
iterator.remove();
}
}
@Nullable
public static CreateClassOrPackageFix createFix(
@NotNull final String qualifiedName,
@NotNull final GlobalSearchScope scope,
@NotNull final PsiElement context,
@Nullable final PsiPackage basePackage,
@Nullable ClassKind kind,
@Nullable String superClass,
@Nullable String templateName) {
final List<PsiDirectory> directories =
getWritableDirectoryListDefault(basePackage, scope, context.getManager());
if (directories.isEmpty()) {
return null;
}
final String redPart =
basePackage == null
? qualifiedName
: qualifiedName.substring(basePackage.getQualifiedName().length() + 1);
final int dot = redPart.indexOf('.');
final boolean fixPath = dot >= 0;
final String firstRedName = fixPath ? redPart.substring(0, dot) : redPart;
for (Iterator<PsiDirectory> i = directories.iterator(); i.hasNext(); ) {
if (!checkCreateClassOrPackage(kind != null && !fixPath, i.next(), firstRedName)) {
i.remove();
}
}
return new CreateClassOrPackageFix(
directories,
context,
fixPath ? qualifiedName : redPart,
redPart,
kind,
superClass,
templateName);
}
@Nullable
private InstructionImpl findInstruction(PsiElement element) {
final Iterator<InstructionImpl> iterator = myProcessingStack.descendingIterator();
while (iterator.hasNext()) {
final InstructionImpl instruction = iterator.next();
if (element.equals(instruction.getElement())) return instruction;
}
return null;
}
private void processInterface(PsiClass inheritor, PsiClass anInterface) {
for (Iterator<PsiMethod> methodIterator = myRemainingMethods.iterator();
methodIterator.hasNext(); ) {
PsiMethod method = methodIterator.next();
SiblingInfo info = findSibling(inheritor, anInterface, method);
if (info != null) {
myResult.put(method, info);
methodIterator.remove();
}
}
}
public static ClassFilter[] readFilters(List children) throws InvalidDataException {
if (children == null || children.size() == 0) {
return ClassFilter.EMPTY_ARRAY;
}
List<ClassFilter> classFiltersList = new ArrayList<ClassFilter>(children.size());
for (Iterator i = children.iterator(); i.hasNext(); ) {
final ClassFilter classFilter = new ClassFilter();
classFilter.readExternal((Element) i.next());
classFiltersList.add(classFilter);
}
return classFiltersList.toArray(new ClassFilter[classFiltersList.size()]);
}
@Nullable
public static List<UnresolvableCollisionUsageInfo> removeConflictUsages(Set<UsageInfo> usages) {
final List<UnresolvableCollisionUsageInfo> result =
new ArrayList<UnresolvableCollisionUsageInfo>();
for (Iterator<UsageInfo> iterator = usages.iterator(); iterator.hasNext(); ) {
UsageInfo usageInfo = iterator.next();
if (usageInfo instanceof UnresolvableCollisionUsageInfo) {
result.add((UnresolvableCollisionUsageInfo) usageInfo);
iterator.remove();
}
}
return result.isEmpty() ? null : result;
}
@Override
public void preprocessCovariantOverriders(final List<UsageInfo> covariantOverriderInfos) {
for (Iterator<UsageInfo> usageInfoIterator = covariantOverriderInfos.iterator();
usageInfoIterator.hasNext(); ) {
final UsageInfo info = usageInfoIterator.next();
if (info instanceof OverriderUsageInfo) {
final OverriderUsageInfo overrideUsage = (OverriderUsageInfo) info;
if (myAffectedMethods.contains(overrideUsage.getOverridingMethod())) {
usageInfoIterator.remove();
}
}
}
}
private void addToResult(Map<PsiExpression, PsiType> map) {
if (myResult == null) {
myResult = new THashMap<>(map, ExpressionTypeMemoryState.EXPRESSION_HASHING_STRATEGY);
} else {
final Iterator<PsiExpression> iterator = myResult.keySet().iterator();
while (iterator.hasNext()) {
PsiExpression psiExpression = iterator.next();
if (!myResult.get(psiExpression).equals(map.get(psiExpression))) {
iterator.remove();
}
}
}
}
protected void defineScopeEquivalence(Class scopeClass, Class equivClass) {
final Iterator<CompletionVariant> iter = myCompletionVariants.iterator();
if (isScopeFinal(scopeClass)) {
declareFinalScope(equivClass);
}
while (iter.hasNext()) {
final CompletionVariant variant = iter.next();
if (variant.isScopeClassAcceptable(scopeClass)) {
variant.includeScopeClass(equivClass, variant.isScopeClassFinal(scopeClass));
}
}
}
@Nullable
private ExceptionInfo findCatch(PsiType thrownType) {
final Iterator<ExceptionInfo> iterator = myCaughtExceptionInfos.descendingIterator();
while (iterator.hasNext()) {
final ExceptionInfo info = iterator.next();
final GrCatchClause clause = info.myClause;
final GrParameter parameter = clause.getParameter();
if (parameter != null) {
final PsiType type = parameter.getType();
if (type.isAssignableFrom(thrownType)) return info;
}
}
return null;
}
@Nullable
public static PsiMethod findPropertyGetterWithType(
String propertyName, boolean isStatic, PsiType type, Iterator<PsiMethod> methods) {
while (methods.hasNext()) {
PsiMethod method = methods.next();
if (method.hasModifierProperty(PsiModifier.STATIC) != isStatic) continue;
if (isSimplePropertyGetter(method)) {
if (getPropertyNameByGetter(method).equals(propertyName)) {
if (type.equals(method.getReturnType())) return method;
}
}
}
return null;
}
protected void refreshElements(PsiElement[] elements) {
LOG.assertTrue(elements.length > 0);
if (myPrimaryElement != null) {
myPrimaryElement = elements[0];
}
final Iterator<String> newNames = myAllRenames.values().iterator();
LinkedHashMap<PsiElement, String> newAllRenames = new LinkedHashMap<PsiElement, String>();
for (PsiElement resolved : elements) {
newAllRenames.put(resolved, newNames.next());
}
myAllRenames.clear();
myAllRenames.putAll(newAllRenames);
}
private static boolean elementListsEqual(List<Element> l1, List<Element> l2) {
if (l1 == null) return l2 == null;
if (l2 == null) return false;
if (l1.size() != l2.size()) return false;
Iterator<Element> i1 = l1.iterator();
for (Element aL2 : l2) {
Element elem1 = i1.next();
if (!elementsEqual(elem1, aL2)) return false;
}
return true;
}
private static void test(MethodEntry current, List<MethodEntry> set) {
Iterator<MethodEntry> it = current.myCalledMethods.iterator();
while (it.hasNext()) {
MethodEntry callee = it.next();
if (set.contains(callee)) {
callee.myCalledByMethods.remove(current);
if (callee.myCalledByMethods.size() == 0) {
callee.myRelatedMethod = false;
}
it.remove();
} else {
set.add(callee);
test(callee, set);
}
}
}
private static boolean elementListsEqual(List<Element> l1, List<Element> l2) {
if (l1 == null) return l2 == null;
if (l2 == null) return false;
if (l1.size() != l2.size()) return false;
Iterator<Element> i1 = l1.iterator();
Iterator<Element> i2 = l2.iterator();
while (i2.hasNext()) {
Element elem1 = i1.next();
Element elem2 = i2.next();
if (!elementsEqual(elem1, elem2)) return false;
}
return true;
}
private static void filterOutBindings(@NotNull List<GroovyResolveResult> candidates) {
boolean hasNonBinding = false;
for (GroovyResolveResult candidate : candidates) {
if (!(candidate.getElement() instanceof GrBindingVariable)) {
hasNonBinding = true;
}
}
if (hasNonBinding) {
for (Iterator<GroovyResolveResult> iterator = candidates.iterator(); iterator.hasNext(); ) {
GroovyResolveResult candidate = iterator.next();
if (candidate.getElement() instanceof GrBindingVariable) {
iterator.remove();
}
}
}
}
@Nullable
public static PsiField findPropertyFieldWithType(
Project project,
String propertyName,
boolean isStatic,
PsiType type,
Iterator<PsiField> fields) {
while (fields.hasNext()) {
PsiField field = fields.next();
if (field.hasModifierProperty(PsiModifier.STATIC) != isStatic) continue;
if (propertyName.equals(suggestPropertyName(project, field))) {
if (type.equals(field.getType())) return field;
}
}
return null;
}
private static boolean attributeListsEqual(List<Attribute> l1, List<Attribute> l2) {
if (l1 == null) return l2 == null;
if (l2 == null) return false;
if (l1.size() != l2.size()) return false;
Iterator<Attribute> i1 = l1.iterator();
for (Attribute aL2 : l2) {
Attribute attr1 = i1.next();
if (!Comparing.equal(attr1.getName(), aL2.getName())
|| !Comparing.equal(attr1.getValue(), aL2.getValue())) {
return false;
}
}
return true;
}
private void removeParametersUsedInExitsOnly(
PsiElement codeFragment, List<PsiVariable> inputVariables) {
LocalSearchScope scope = new LocalSearchScope(codeFragment);
Variables:
for (Iterator<PsiVariable> iterator = inputVariables.iterator(); iterator.hasNext(); ) {
PsiVariable variable = iterator.next();
for (PsiReference ref : ReferencesSearch.search(variable, scope)) {
PsiElement element = ref.getElement();
int elementOffset = myControlFlow.getStartOffset(element);
if (elementOffset == -1) {
continue Variables;
}
if (elementOffset >= myFlowStart && elementOffset <= myFlowEnd) {
if (!isInExitStatements(element, myExitStatements)) continue Variables;
}
}
iterator.remove();
}
}
@Override
public void removeEntryPoint(@NotNull RefElement anEntryPoint) {
myTemporaryEntryPoints.remove(anEntryPoint);
Set<Map.Entry<String, SmartRefElementPointer>> set = myPersistentEntryPoints.entrySet();
String key = null;
for (Map.Entry<String, SmartRefElementPointer> entry : set) {
SmartRefElementPointer value = entry.getValue();
if (value.getRefElement() == anEntryPoint) {
key = entry.getKey();
break;
}
}
if (key != null) {
myPersistentEntryPoints.remove(key);
}
((RefElementImpl) anEntryPoint).setEntry(false);
if (anEntryPoint.isPermanentEntry() && anEntryPoint.isValid()) {
final Project project = anEntryPoint.getElement().getProject();
final EntryPointsManager entryPointsManager = getInstance(project);
if (this != entryPointsManager) {
entryPointsManager.removeEntryPoint(anEntryPoint);
}
}
if (anEntryPoint instanceof RefMethod && ((RefMethod) anEntryPoint).isConstructor()
|| anEntryPoint instanceof RefClass) {
final RefClass aClass =
anEntryPoint instanceof RefClass
? (RefClass) anEntryPoint
: ((RefMethod) anEntryPoint).getOwnerClass();
final String qualifiedName = aClass.getQualifiedName();
for (Iterator<ClassPattern> iterator = getPatterns().iterator(); iterator.hasNext(); ) {
if (Comparing.equal(iterator.next().pattern, qualifiedName)) {
// todo if inheritance or pattern?
iterator.remove();
}
}
}
}
private List<TypeParameterDescriptor> modifyTypeParametersAccordingToSuperMethods(
List<TypeParameterDescriptor> autoTypeParameters) {
List<TypeParameterDescriptor> result = Lists.newArrayList();
for (TypeParameterDescriptor autoParameter : autoTypeParameters) {
int index = autoParameter.getIndex();
TypeParameterDescriptorImpl modifiedTypeParameter =
autoTypeParameterToModified.get(autoParameter);
List<Iterator<JetType>> upperBoundFromSuperFunctionsIterators = Lists.newArrayList();
for (FunctionDescriptor superFunction : superFunctions) {
upperBoundFromSuperFunctionsIterators.add(
superFunction.getTypeParameters().get(index).getUpperBounds().iterator());
}
for (JetType autoUpperBound : autoParameter.getUpperBounds()) {
List<TypeAndVariance> upperBoundsFromSuperFunctions = Lists.newArrayList();
for (Iterator<JetType> iterator : upperBoundFromSuperFunctionsIterators) {
assert iterator.hasNext();
upperBoundsFromSuperFunctions.add(new TypeAndVariance(iterator.next(), INVARIANT));
}
JetType modifiedUpperBound =
modifyTypeAccordingToSuperMethods(
autoUpperBound, upperBoundsFromSuperFunctions, UPPER_BOUND);
modifiedTypeParameter.addUpperBound(modifiedUpperBound);
}
for (Iterator<JetType> iterator : upperBoundFromSuperFunctionsIterators) {
assert !iterator.hasNext();
}
modifiedTypeParameter.setInitialized();
result.add(modifiedTypeParameter);
}
return result;
}
private void validateEntryPoints() {
long count = PsiManager.getInstance(myProject).getModificationTracker().getModificationCount();
if (count != myLastModificationCount) {
myLastModificationCount = count;
Collection<SmartRefElementPointer> collection = myPersistentEntryPoints.values();
SmartRefElementPointer[] entries =
collection.toArray(new SmartRefElementPointer[collection.size()]);
for (SmartRefElementPointer entry : entries) {
RefElement refElement = (RefElement) entry.getRefElement();
if (refElement != null && !refElement.isValid()) {
myPersistentEntryPoints.remove(entry.getFQName());
}
}
final Iterator<RefElement> it = myTemporaryEntryPoints.iterator();
while (it.hasNext()) {
RefElement refElement = it.next();
if (!refElement.isValid()) {
it.remove();
}
}
}
}
private void addInaccessibilityDescriptions(
Set<UsageInfo> usages, MultiMap<PsiElement, String> conflictDescriptions)
throws IncorrectOperationException {
PsiMethod method = myChangeInfo.getMethod();
PsiModifierList modifierList = (PsiModifierList) method.getModifierList().copy();
VisibilityUtil.setVisibility(modifierList, myChangeInfo.getNewVisibility());
for (Iterator<UsageInfo> iterator = usages.iterator(); iterator.hasNext(); ) {
UsageInfo usageInfo = iterator.next();
PsiElement element = usageInfo.getElement();
if (element != null) {
if (element instanceof PsiQualifiedReference) {
PsiClass accessObjectClass = null;
PsiElement qualifier = ((PsiQualifiedReference) element).getQualifier();
if (qualifier instanceof PsiExpression) {
accessObjectClass =
(PsiClass) PsiUtil.getAccessObjectClass((PsiExpression) qualifier).getElement();
}
if (!JavaPsiFacade.getInstance(element.getProject())
.getResolveHelper()
.isAccessible(method, modifierList, element, accessObjectClass, null)) {
String message =
RefactoringBundle.message(
"0.with.1.visibility.is.not.accessible.from.2",
RefactoringUIUtil.getDescription(method, true),
myChangeInfo.getNewVisibility(),
RefactoringUIUtil.getDescription(ConflictsUtil.getContainer(element), true));
conflictDescriptions.putValue(method, message);
if (!needToChangeCalls()) {
iterator.remove();
}
}
}
}
}
}
public List<PsiVariable> getInputVariables(
final PsiElement codeFragment, PsiElement[] elements, PsiVariable[] outputVariables) {
final List<PsiVariable> inputVariables =
ControlFlowUtil.getInputVariables(myControlFlow, myFlowStart, myFlowEnd);
List<PsiVariable> myInputVariables;
if (skipVariablesFromExitStatements(outputVariables)) {
List<PsiVariable> inputVariableList = new ArrayList<>(inputVariables);
removeParametersUsedInExitsOnly(codeFragment, inputVariableList);
myInputVariables = inputVariableList;
} else {
List<PsiVariable> inputVariableList = new ArrayList<>(inputVariables);
for (Iterator<PsiVariable> iterator = inputVariableList.iterator(); iterator.hasNext(); ) {
PsiVariable variable = iterator.next();
for (PsiElement element : elements) {
if (PsiTreeUtil.isAncestor(element, variable, false)) {
iterator.remove();
break;
}
}
}
myInputVariables = inputVariableList;
}
// varargs variables go last, otherwise order is induced by original ordering
Collections.sort(
myInputVariables,
(v1, v2) -> {
if (v1.getType() instanceof PsiEllipsisType) {
return 1;
}
if (v2.getType() instanceof PsiEllipsisType) {
return -1;
}
return v1.getTextOffset() - v2.getTextOffset();
});
return myInputVariables;
}
private void removeInvalidRefs() {
synchronized (myLocalRefsMap) {
for (Iterator<PsiReference> iterator = myLocalRefsMap.keySet().iterator();
iterator.hasNext(); ) {
PsiReference ref = iterator.next();
if (!ref.getElement().isValid()) {
PsiElement value = myLocalRefsMap.get(ref);
iterator.remove();
List<PsiReference> array = myLocalRefsMap.getKeysByValue(value);
LOG.assertTrue(array != null);
array.remove(ref);
}
}
}
for (Iterator<PsiReference> iterator = myImportStatements.keySet().iterator();
iterator.hasNext(); ) {
PsiReference ref = iterator.next();
if (!ref.getElement().isValid()) {
iterator.remove();
}
}
removeInvalidFrom(myDclsUsedMap.keySet());
}
public static ReferenceType getSuperClass(
final String baseQualifiedName, ReferenceType checkedType) {
if (baseQualifiedName.equals(checkedType.name())) {
return checkedType;
}
if (checkedType instanceof ClassType) {
ClassType classType = (ClassType) checkedType;
ClassType superClassType = classType.superclass();
if (superClassType != null) {
ReferenceType superClass = getSuperClass(baseQualifiedName, superClassType);
if (superClass != null) {
return superClass;
}
}
List<InterfaceType> ifaces = classType.allInterfaces();
for (Iterator<InterfaceType> it = ifaces.iterator(); it.hasNext(); ) {
InterfaceType iface = it.next();
ReferenceType superClass = getSuperClass(baseQualifiedName, iface);
if (superClass != null) {
return superClass;
}
}
}
if (checkedType instanceof InterfaceType) {
List<InterfaceType> list = ((InterfaceType) checkedType).superinterfaces();
for (Iterator<InterfaceType> it = list.iterator(); it.hasNext(); ) {
InterfaceType superInterface = it.next();
ReferenceType superClass = getSuperClass(baseQualifiedName, superInterface);
if (superClass != null) {
return superClass;
}
}
}
return null;
}
private List<PostponedAction> normalizeAndReorderPostponedActions(
final TreeSet<PostprocessFormattingTask> rangesToProcess, Document document) {
final List<PostprocessFormattingTask> freeFormatingActions =
new ArrayList<PostprocessFormattingTask>();
final List<ReindentTask> indentActions = new ArrayList<ReindentTask>();
PostprocessFormattingTask accumulatedTask = null;
Iterator<PostprocessFormattingTask> iterator = rangesToProcess.iterator();
while (iterator.hasNext()) {
final PostprocessFormattingTask currentTask = iterator.next();
if (accumulatedTask == null) {
accumulatedTask = currentTask;
iterator.remove();
} else if (accumulatedTask.getStartOffset() > currentTask.getEndOffset()
|| accumulatedTask.getStartOffset() == currentTask.getEndOffset()
&& !canStickActionsTogether(accumulatedTask, currentTask)) {
// action can be pushed
if (accumulatedTask instanceof ReindentTask) {
indentActions.add((ReindentTask) accumulatedTask);
} else {
freeFormatingActions.add(accumulatedTask);
}
accumulatedTask = currentTask;
iterator.remove();
} else if (accumulatedTask instanceof ReformatTask && currentTask instanceof ReindentTask) {
// split accumulated reformat range into two
if (accumulatedTask.getStartOffset() < currentTask.getStartOffset()) {
final RangeMarker endOfRange =
document.createRangeMarker(
accumulatedTask.getStartOffset(), currentTask.getStartOffset());
// add heading reformat part
rangesToProcess.add(new ReformatTask(endOfRange));
// and manage heading whitespace because formatter does not edit it in previous action
iterator = rangesToProcess.iterator();
//noinspection StatementWithEmptyBody
while (iterator.next().getRange() != currentTask.getRange()) ;
}
final RangeMarker rangeToProcess =
document.createRangeMarker(currentTask.getEndOffset(), accumulatedTask.getEndOffset());
freeFormatingActions.add(new ReformatWithHeadingWhitespaceTask(rangeToProcess));
accumulatedTask = currentTask;
iterator.remove();
} else {
if (!(accumulatedTask instanceof ReindentTask)) {
iterator.remove();
boolean withLeadingWhitespace =
accumulatedTask instanceof ReformatWithHeadingWhitespaceTask;
if (accumulatedTask instanceof ReformatTask
&& currentTask instanceof ReformatWithHeadingWhitespaceTask
&& accumulatedTask.getStartOffset() == currentTask.getStartOffset()) {
withLeadingWhitespace = true;
} else if (accumulatedTask instanceof ReformatWithHeadingWhitespaceTask
&& currentTask instanceof ReformatTask
&& accumulatedTask.getStartOffset() < currentTask.getStartOffset()) {
withLeadingWhitespace = false;
}
int newStart = Math.min(accumulatedTask.getStartOffset(), currentTask.getStartOffset());
int newEnd = Math.max(accumulatedTask.getEndOffset(), currentTask.getEndOffset());
RangeMarker rangeMarker;
if (accumulatedTask.getStartOffset() == newStart
&& accumulatedTask.getEndOffset() == newEnd) {
rangeMarker = accumulatedTask.getRange();
} else if (currentTask.getStartOffset() == newStart
&& currentTask.getEndOffset() == newEnd) {
rangeMarker = currentTask.getRange();
} else {
rangeMarker = document.createRangeMarker(newStart, newEnd);
}
if (withLeadingWhitespace) {
accumulatedTask = new ReformatWithHeadingWhitespaceTask(rangeMarker);
} else {
accumulatedTask = new ReformatTask(rangeMarker);
}
} else if (currentTask instanceof ReindentTask) {
iterator.remove();
} // TODO[ik]: need to be fixed to correctly process indent inside indent
}
}
if (accumulatedTask != null) {
if (accumulatedTask instanceof ReindentTask) {
indentActions.add((ReindentTask) accumulatedTask);
} else {
freeFormatingActions.add(accumulatedTask);
}
}
final List<PostponedAction> result = new ArrayList<PostponedAction>();
Collections.reverse(freeFormatingActions);
Collections.reverse(indentActions);
if (!freeFormatingActions.isEmpty()) {
FormatTextRanges ranges = new FormatTextRanges();
for (PostprocessFormattingTask action : freeFormatingActions) {
TextRange range = TextRange.create(action);
ranges.add(range, action instanceof ReformatWithHeadingWhitespaceTask);
}
result.add(new ReformatRangesAction(ranges));
}
if (!indentActions.isEmpty()) {
ReindentRangesAction reindentRangesAction = new ReindentRangesAction();
for (ReindentTask action : indentActions) {
reindentRangesAction.add(action.getRange(), action.getOldIndent());
}
result.add(reindentRangesAction);
}
return result;
}
