/**
* Update token map with a set of token/endpoint pairs in normal state.
*
* <p>Prefer this whenever there are multiple pairs to update, as each update (whether a single or
* multiple) is expensive (CASSANDRA-3831).
*
* @param endpointTokens
*/
public void updateNormalTokens(Multimap<InetAddress, Token> endpointTokens) {
if (endpointTokens.isEmpty()) return;
lock.writeLock().lock();
try {
boolean shouldSortTokens = false;
for (InetAddress endpoint : endpointTokens.keySet()) {
Collection<Token> tokens = endpointTokens.get(endpoint);
assert tokens != null && !tokens.isEmpty();
bootstrapTokens.removeValue(endpoint);
tokenToEndpointMap.removeValue(endpoint);
topology.addEndpoint(endpoint);
leavingEndpoints.remove(endpoint);
removeFromMoving(endpoint); // also removing this endpoint from moving
for (Token token : tokens) {
InetAddress prev = tokenToEndpointMap.put(token, endpoint);
if (!endpoint.equals(prev)) {
if (prev != null)
logger.warn("Token {} changing ownership from {} to {}", token, prev, endpoint);
shouldSortTokens = true;
}
}
}
if (shouldSortTokens) sortedTokens = sortTokens();
} finally {
lock.writeLock().unlock();
}
}
public void checkRedeclarationsInInnerClassNames(@NotNull TopDownAnalysisContext c) {
for (ClassDescriptorWithResolutionScopes classDescriptor : c.getDeclaredClasses().values()) {
if (classDescriptor.getKind() == ClassKind.CLASS_OBJECT) {
// Class objects should be considered during analysing redeclarations in classes
continue;
}
Collection<DeclarationDescriptor> allDescriptors =
classDescriptor.getScopeForMemberLookup().getOwnDeclaredDescriptors();
ClassDescriptorWithResolutionScopes classObj = classDescriptor.getClassObjectDescriptor();
if (classObj != null) {
Collection<DeclarationDescriptor> classObjDescriptors =
classObj.getScopeForMemberLookup().getOwnDeclaredDescriptors();
if (!classObjDescriptors.isEmpty()) {
allDescriptors = Lists.newArrayList(allDescriptors);
allDescriptors.addAll(classObjDescriptors);
}
}
Multimap<Name, DeclarationDescriptor> descriptorMap = HashMultimap.create();
for (DeclarationDescriptor desc : allDescriptors) {
if (desc instanceof ClassDescriptor || desc instanceof PropertyDescriptor) {
descriptorMap.put(desc.getName(), desc);
}
}
reportRedeclarations(descriptorMap);
}
}
/**
* 将原始数据切割后装入ThreadInfo，并以Key=WaitID，Value= ThreadInfo实体放入到Multimap<String, ThreadInfo>集合中
* ps:Multimap 类似于Map<key,collection>, key:value-> 1:n
*
* @param rawDatas
* @return
*/
public Multimap<String, ThreadInfo> getThreadInfo(List<String[]> rawDatas) {
Multimap<String, ThreadInfo> w_IdMap = HashMultimap.create();
List<ThreadInfo> threadsList = Lists.newArrayList();
for (String[] rawData : rawDatas) {
ThreadInfo threadInfo = new ThreadInfo();
Pattern t_id = Pattern.compile("tid=(0x[\\d\\w]+)");
Pattern t_name = Pattern.compile("\"([\\d\\D]*)\"");
Pattern w_Id = Pattern.compile("\\[(0x[\\d\\w]+)\\]");
Matcher tIdMatcher = t_id.matcher(rawData[0]);
Matcher nameMatcher = t_name.matcher(rawData[0]);
Matcher w_IdMatcher = w_Id.matcher(rawData[0]);
if (tIdMatcher.find()) {
threadInfo.setThreadId(tIdMatcher.group(1));
}
if (nameMatcher.find()) {
threadInfo.setThreadName(nameMatcher.group(1));
}
if (w_IdMatcher.find()) {
threadInfo.setWaitThreadId(w_IdMatcher.group(1));
}
threadInfo.setThreadCondition(rawData[1]);
w_IdMap.put(threadInfo.getWaitThreadId(), threadInfo);
}
return w_IdMap;
}
// Returns list with type arguments info from supertypes
// Example:
// - Foo<A, B> is a subtype of Bar<A, List<B>>, Baz<Boolean, A>
// - input: klass = Foo, typesFromSuper = [Bar<String, List<Int>>, Baz<Boolean, CharSequence>]
// - output[0] = [String, CharSequence], output[1] = []
private static List<List<TypeProjectionAndVariance>> calculateTypeArgumentsFromSuper(
@NotNull ClassDescriptor klass, @NotNull Collection<TypeAndVariance> typesFromSuper) {
// For each superclass of klass and its parameters, hold their mapping to klass' parameters
// #0 of Bar -> A
// #1 of Bar -> List<B>
// #0 of Baz -> Boolean
// #1 of Baz -> A
// #0 of Foo -> A (mapped to itself)
// #1 of Foo -> B (mapped to itself)
Multimap<TypeConstructor, TypeProjection> substitution =
SubstitutionUtils.buildDeepSubstitutionMultimap(
TypeUtils.makeUnsubstitutedType(klass, JetScope.EMPTY));
// for each parameter of klass, hold arguments in corresponding supertypes
List<List<TypeProjectionAndVariance>> parameterToArgumentsFromSuper = Lists.newArrayList();
for (TypeParameterDescriptor ignored : klass.getTypeConstructor().getParameters()) {
parameterToArgumentsFromSuper.add(new ArrayList<TypeProjectionAndVariance>());
}
// Enumerate all types from super and all its parameters
for (TypeAndVariance typeFromSuper : typesFromSuper) {
for (TypeParameterDescriptor parameter :
typeFromSuper.type.getConstructor().getParameters()) {
TypeProjection argument = typeFromSuper.type.getArguments().get(parameter.getIndex());
// for given example, this block is executed four times:
// 1. typeFromSuper = Bar<String, List<Int>>, parameter = "#0 of Bar", argument =
// String
// 2. typeFromSuper = Bar<String, List<Int>>, parameter = "#1 of Bar", argument =
// List<Int>
// 3. typeFromSuper = Baz<Boolean, CharSequence>, parameter = "#0 of Baz", argument =
// Boolean
// 4. typeFromSuper = Baz<Boolean, CharSequence>, parameter = "#1 of Baz", argument =
// CharSequence
// if it is mapped to klass' parameter, then store it into map
for (TypeProjection projection : substitution.get(parameter.getTypeConstructor())) {
// 1. projection = A
// 2. projection = List<B>
// 3. projection = Boolean
// 4. projection = A
ClassifierDescriptor classifier =
projection.getType().getConstructor().getDeclarationDescriptor();
// this condition is true for 1 and 4, false for 2 and 3
if (classifier instanceof TypeParameterDescriptor
&& classifier.getContainingDeclaration() == klass) {
int parameterIndex = ((TypeParameterDescriptor) classifier).getIndex();
Variance effectiveVariance =
parameter.getVariance().superpose(typeFromSuper.varianceOfPosition);
parameterToArgumentsFromSuper
.get(parameterIndex)
.add(new TypeProjectionAndVariance(argument, effectiveVariance));
}
}
}
}
return parameterToArgumentsFromSuper;
}
private int repeatInternal(
@NotNull PseudocodeImpl originalPseudocode,
@Nullable Label startLabel,
@Nullable Label finishLabel,
int labelCount) {
Integer startIndex =
startLabel != null
? ((PseudocodeLabel) startLabel).getTargetInstructionIndex()
: Integer.valueOf(0);
assert startIndex != null;
Integer finishIndex =
finishLabel != null
? ((PseudocodeLabel) finishLabel).getTargetInstructionIndex()
: Integer.valueOf(originalPseudocode.mutableInstructionList.size());
assert finishIndex != null;
Map<Label, Label> originalToCopy = Maps.newLinkedHashMap();
Multimap<Instruction, Label> originalLabelsForInstruction = HashMultimap.create();
for (PseudocodeLabel label : originalPseudocode.labels) {
Integer index = label.getTargetInstructionIndex();
if (index == null) continue; // label is not bounded yet
if (label == startLabel || label == finishLabel) continue;
if (startIndex <= index && index <= finishIndex) {
originalToCopy.put(label, label.copy(labelCount++));
originalLabelsForInstruction.put(getJumpTarget(label), label);
}
}
for (Label label : originalToCopy.values()) {
labels.add((PseudocodeLabel) label);
}
for (int index = startIndex; index < finishIndex; index++) {
Instruction originalInstruction = originalPseudocode.mutableInstructionList.get(index);
repeatLabelsBindingForInstruction(
originalInstruction, originalToCopy, originalLabelsForInstruction);
Instruction copy = copyInstruction(originalInstruction, originalToCopy);
addInstruction(copy);
if (originalInstruction == originalPseudocode.errorInstruction
&& copy instanceof SubroutineExitInstruction) {
errorInstruction = (SubroutineExitInstruction) copy;
}
if (originalInstruction == originalPseudocode.exitInstruction
&& copy instanceof SubroutineExitInstruction) {
exitInstruction = (SubroutineExitInstruction) copy;
}
if (originalInstruction == originalPseudocode.sinkInstruction
&& copy instanceof SubroutineSinkInstruction) {
sinkInstruction = (SubroutineSinkInstruction) copy;
}
}
if (finishIndex < mutableInstructionList.size()) {
repeatLabelsBindingForInstruction(
originalPseudocode.mutableInstructionList.get(finishIndex),
originalToCopy,
originalLabelsForInstruction);
}
return labelCount;
}
public String toGraphviz() {
StringBuilder builder = new StringBuilder();
builder.append("digraph QuantileDigest {\n").append("\tgraph [ordering=\"out\"];");
final List<Node> nodes = new ArrayList<>();
postOrderTraversal(
root,
new Callback() {
@Override
public boolean process(Node node) {
nodes.add(node);
return true;
}
});
Multimap<Integer, Node> nodesByLevel =
Multimaps.index(
nodes,
new Function<Node, Integer>() {
@Override
public Integer apply(Node input) {
return input.level;
}
});
for (Map.Entry<Integer, Collection<Node>> entry : nodesByLevel.asMap().entrySet()) {
builder.append("\tsubgraph level_" + entry.getKey() + " {\n").append("\t\trank = same;\n");
for (Node node : entry.getValue()) {
builder.append(
String.format(
"\t\t%s [label=\"[%s..%s]@%s\\n%s\", shape=rect, style=filled,color=%s];\n",
idFor(node),
node.getLowerBound(),
node.getUpperBound(),
node.level,
node.weightedCount,
node.weightedCount > 0 ? "salmon2" : "white"));
}
builder.append("\t}\n");
}
for (Node node : nodes) {
if (node.left != null) {
builder.append(format("\t%s -> %s;\n", idFor(node), idFor(node.left)));
}
if (node.right != null) {
builder.append(format("\t%s -> %s;\n", idFor(node), idFor(node.right)));
}
}
builder.append("}\n");
return builder.toString();
}
/** @return an endpoint to token multimap representation of tokenToEndpointMap (a copy) */
public Multimap<InetAddress, Token> getEndpointToTokenMapForReading() {
lock.readLock().lock();
try {
Multimap<InetAddress, Token> cloned = HashMultimap.create();
for (Map.Entry<Token, InetAddress> entry : tokenToEndpointMap.entrySet())
cloned.put(entry.getValue(), entry.getKey());
return cloned;
} finally {
lock.readLock().unlock();
}
}
/**
* expand super types after scanning, for super types that were not scanned. this is helpful in
* finding the transitive closure without scanning all 3rd party dependencies. it uses {@link
* ReflectionUtils#getSuperTypes(Class)}.
*
* <p>for example, for classes A,B,C where A supertype of B, B supertype of C:
*
* <ul>
* <li>if scanning C resulted in B (B->C in store), but A was not scanned (although A supertype
* of B) - then getSubTypes(A) will not return C
* <li>if expanding supertypes, B will be expanded with A (A->B in store) - then getSubTypes(A)
* will return C
* </ul>
*/
public void expandSuperTypes() {
if (store.keySet().contains(index(SubTypesScanner.class))) {
Multimap<String, String> mmap = store.get(index(SubTypesScanner.class));
Sets.SetView<String> keys = Sets.difference(mmap.keySet(), Sets.newHashSet(mmap.values()));
Multimap<String, String> expand = HashMultimap.create();
for (String key : keys) {
expandSupertypes(expand, key, forName(key));
}
mmap.putAll(expand);
}
}
/**
* Helper used by scanXyz methods below to check whether a directory should be visited. It can be
* skipped if it's not a directory or if it's already marked as visited in mVisitedDirs for the
* given package type -- in which case the directory is added to the visited map.
*
* @param pkgType The package type being scanned.
* @param directory The file or directory to check.
* @return False if directory can/should be skipped. True if directory should be visited, in which
* case it's registered in mVisitedDirs.
*/
private boolean shouldVisitDir(@NonNull PkgType pkgType, @NonNull File directory) {
if (!mFileOp.isDirectory(directory)) {
return false;
}
synchronized (mLocalPackages) {
if (mVisitedDirs.containsEntry(pkgType, new LocalDirInfo.MapComparator(directory))) {
return false;
}
mVisitedDirs.put(pkgType, new LocalDirInfo(mFileOp, directory));
}
return true;
}
/** merges a Reflections instance metadata into this instance */
public Reflections merge(final Reflections reflections) {
if (reflections.store != null) {
for (String indexName : reflections.store.keySet()) {
Multimap<String, String> index = reflections.store.get(indexName);
for (String key : index.keySet()) {
for (String string : index.get(key)) {
store.getOrCreate(indexName).put(key, string);
}
}
}
}
return this;
}
/**
* For unique local packages. Returns the cached LocalPkgInfo for the requested type. Loads it
* from disk if not cached.
*
* @param filter {@link PkgType#PKG_TOOLS} or {@link PkgType#PKG_PLATFORM_TOOLS} or {@link
* PkgType#PKG_DOC}.
* @return null if the package is not installed.
*/
@Nullable
public LocalPkgInfo getPkgInfo(@NonNull PkgType filter) {
if (filter != PkgType.PKG_TOOLS
&& filter != PkgType.PKG_PLATFORM_TOOLS
&& filter != PkgType.PKG_DOC
&& filter != PkgType.PKG_NDK) {
assert false;
return null;
}
LocalPkgInfo info = null;
synchronized (mLocalPackages) {
Collection<LocalPkgInfo> existing = mLocalPackages.get(filter);
assert existing.size() <= 1;
if (!existing.isEmpty()) {
return existing.iterator().next();
}
File uniqueDir = new File(mSdkRoot, filter.getFolderName());
if (!mVisitedDirs.containsEntry(filter, new LocalDirInfo.MapComparator(uniqueDir))) {
switch (filter) {
case PKG_TOOLS:
info = scanTools(uniqueDir);
break;
case PKG_PLATFORM_TOOLS:
info = scanPlatformTools(uniqueDir);
break;
case PKG_DOC:
info = scanDoc(uniqueDir);
break;
case PKG_NDK:
info = scanNdk(uniqueDir);
default:
break;
}
}
// Whether we have found a valid pkg or not, this directory has been visited.
mVisitedDirs.put(filter, new LocalDirInfo(mFileOp, uniqueDir));
if (info != null) {
mLocalPackages.put(filter, info);
}
}
return info;
}
/**
* Clear the tracked visited folders & the cached {@link LocalPkgInfo} for the given filter types.
*
* @param filters A set of PkgType constants or {@link PkgType#PKG_ALL} to clear everything.
*/
public void clearLocalPkg(@NonNull EnumSet<PkgType> filters) {
mLegacyBuildTools = null;
synchronized (mLocalPackages) {
for (PkgType filter : filters) {
mVisitedDirs.removeAll(filter);
mLocalPackages.removeAll(filter);
}
// Clear the targets if the platforms or addons are being cleared
if (filters.contains(PkgType.PKG_PLATFORM) || filters.contains(PkgType.PKG_ADDON)) {
mCachedMissingTargets = null;
mCachedTargets = null;
}
}
}
private FunctionEntry add(String name, Function function) {
final FunctionEntryImpl entry = new FunctionEntryImpl(this, name, function);
functionMap.put(name, entry);
if (function.getParameters().isEmpty()) {
nullaryFunctionMapInsensitive.put(name, entry);
}
return entry;
}
private void expandSupertypes(Multimap<String, String> mmap, String key, Class<?> type) {
for (Class<?> supertype : ReflectionUtils.getSuperTypes(type)) {
if (mmap.put(supertype.getName(), key)) {
if (log != null) log.debug("expanded subtype {} -> {}", supertype.getName(), key);
expandSupertypes(mmap, supertype.getName(), supertype);
}
}
}
private void repeatLabelsBindingForInstruction(
@NotNull Instruction originalInstruction,
@NotNull Map<Label, Label> originalToCopy,
@NotNull Multimap<Instruction, Label> originalLabelsForInstruction) {
for (Label originalLabel : originalLabelsForInstruction.get(originalInstruction)) {
bindLabel(originalToCopy.get(originalLabel));
}
}
/** Stores current DC/rack assignment for ep */
protected void addEndpoint(InetAddress ep) {
IEndpointSnitch snitch = DatabaseDescriptor.getEndpointSnitch();
String dc = snitch.getDatacenter(ep);
String rack = snitch.getRack(ep);
Pair<String, String> current = currentLocations.get(ep);
if (current != null) {
if (current.left.equals(dc) && current.right.equals(rack)) return;
dcRacks.get(current.left).remove(current.right, ep);
dcEndpoints.remove(current.left, ep);
}
dcEndpoints.put(dc, ep);
if (!dcRacks.containsKey(dc)) dcRacks.put(dc, HashMultimap.<String, InetAddress>create());
dcRacks.get(dc).put(rack, ep);
currentLocations.put(ep, Pair.create(dc, rack));
}
/**
* 按照对应关系对 aitID:threadInfo-> 1:n 对N从大到小排序 处理MulitMap中的数据，key:value->1:n 取出<key, n>
* 对n降序排序后，取得序列后的List<Map.Entry<key, n>>
*
* @return
*/
public List<Map.Entry<String, Integer>> getOrderList(Multimap<String, ThreadInfo> w_IdMap) {
Set<String> keys = w_IdMap.keySet();
Map<String, Integer> w_IdMappingThread = Maps.newHashMap();
for (String key : keys) {
Collection<ThreadInfo> values = w_IdMap.get(key);
w_IdMappingThread.put(key, values.size());
}
List<Map.Entry<String, Integer>> orderList =
new ArrayList<Map.Entry<String, Integer>>(w_IdMappingThread.entrySet());
Collections.sort(
orderList,
new Comparator<Map.Entry<String, Integer>>() {
@Override
public int compare(Map.Entry<String, Integer> o1, Map.Entry<String, Integer> o2) {
return o2.getValue().compareTo(o1.getValue());
}
});
return orderList;
}
private void checkRedeclarationsInPackages(@NotNull TopDownAnalysisContext c) {
for (MutablePackageFragmentDescriptor packageFragment :
Sets.newHashSet(c.getPackageFragments().values())) {
PackageViewDescriptor packageView =
packageFragment.getContainingDeclaration().getPackage(packageFragment.getFqName());
JetScope packageViewScope = packageView.getMemberScope();
Multimap<Name, DeclarationDescriptor> simpleNameDescriptors =
packageFragment.getMemberScope().getDeclaredDescriptorsAccessibleBySimpleName();
for (Name name : simpleNameDescriptors.keySet()) {
// Keep only properties with no receiver
Collection<DeclarationDescriptor> descriptors =
Collections2.filter(
simpleNameDescriptors.get(name),
new Predicate<DeclarationDescriptor>() {
@Override
public boolean apply(@Nullable DeclarationDescriptor descriptor) {
if (descriptor instanceof PropertyDescriptor) {
PropertyDescriptor propertyDescriptor = (PropertyDescriptor) descriptor;
return propertyDescriptor.getReceiverParameter() == null;
}
return true;
}
});
ContainerUtil.addIfNotNull(descriptors, packageViewScope.getPackage(name));
if (descriptors.size() > 1) {
for (DeclarationDescriptor declarationDescriptor : descriptors) {
for (PsiElement declaration : getDeclarationsByDescriptor(declarationDescriptor)) {
assert declaration != null
: "Null declaration for descriptor: "
+ declarationDescriptor
+ " "
+ (declarationDescriptor != null
? DescriptorRenderer.FQ_NAMES_IN_TYPES.render(declarationDescriptor)
: "");
trace.report(
REDECLARATION.on(declaration, declarationDescriptor.getName().asString()));
}
}
}
}
}
}
/** 按照要求打印结果 */
public void printStackInfo(Multimap<String, ThreadInfo> w_IdMap) {
List<Map.Entry<String, Integer>> orderList = getOrderList(w_IdMap);
for (Map.Entry<String, Integer> entry : orderList) {
logger.info(entry.getKey() + "," + entry.getValue()); // 输出wait_id 对应个数
Collection<ThreadInfo> threads = w_IdMap.get(entry.getKey()); // 输出wait_id对应的ThreadInfo集合
for (ThreadInfo thread : threads) {
logger.info("{}", thread);
}
logger.info("");
}
}
/**
* Check the tracked visited folders to see if anything has changed for the requested filter
* types. This does not refresh or reload any package information.
*
* @param filters A set of PkgType constants or {@link PkgType#PKG_ALL} to clear everything.
*/
public boolean hasChanged(@NonNull EnumSet<PkgType> filters) {
for (PkgType filter : filters) {
Collection<LocalDirInfo> dirInfos;
synchronized (mLocalPackages) {
dirInfos = mVisitedDirs.get(filter);
for (LocalDirInfo dirInfo : dirInfos) {
if (dirInfo.hasChanged()) {
return true;
}
}
}
}
return false;
}
private void reportRedeclarations(@NotNull Multimap<Name, DeclarationDescriptor> descriptorMap) {
Set<Pair<PsiElement, Name>> redeclarations = Sets.newHashSet();
for (Name name : descriptorMap.keySet()) {
Collection<DeclarationDescriptor> descriptors = descriptorMap.get(name);
if (descriptors.size() > 1) {
// We mustn't compare PropertyDescriptor with PropertyDescriptor because we do this at
// OverloadResolver
for (DeclarationDescriptor descriptor : descriptors) {
if (descriptor instanceof ClassDescriptor) {
for (DeclarationDescriptor descriptor2 : descriptors) {
if (descriptor == descriptor2) {
continue;
}
redeclarations.add(
Pair.create(
BindingContextUtils.classDescriptorToDeclaration(
trace.getBindingContext(), (ClassDescriptor) descriptor),
descriptor.getName()));
if (descriptor2 instanceof PropertyDescriptor) {
redeclarations.add(
Pair.create(
BindingContextUtils.descriptorToDeclaration(
trace.getBindingContext(), descriptor2),
descriptor2.getName()));
}
}
}
}
}
}
for (Pair<PsiElement, Name> redeclaration : redeclarations) {
trace.report(
REDECLARATION.on(redeclaration.getFirst(), redeclaration.getSecond().asString()));
}
}
public void checkRedeclarationsInPackages(
@NotNull KotlinCodeAnalyzer resolveSession,
@NotNull Multimap<FqName, JetElement> topLevelFqNames) {
for (Map.Entry<FqName, Collection<JetElement>> entry : topLevelFqNames.asMap().entrySet()) {
FqName fqName = entry.getKey();
Collection<JetElement> declarationsOrPackageDirectives = entry.getValue();
if (fqName.isRoot()) continue;
Set<DeclarationDescriptor> descriptors =
getTopLevelDescriptorsByFqName(resolveSession, fqName);
if (descriptors.size() > 1) {
for (JetElement declarationOrPackageDirective : declarationsOrPackageDirectives) {
PsiElement reportAt =
declarationOrPackageDirective instanceof JetNamedDeclaration
? declarationOrPackageDirective
: ((JetPackageDirective) declarationOrPackageDirective).getNameIdentifier();
trace.report(Errors.REDECLARATION.on(reportAt, fqName.shortName().asString()));
}
}
}
}
public void updateNormalTokens(Collection<Token> tokens, InetAddress endpoint) {
Multimap<InetAddress, Token> endpointTokens = HashMultimap.create();
for (Token token : tokens) endpointTokens.put(endpoint, token);
updateNormalTokens(endpointTokens);
}
/**
* Retrieve all the info about the requested package types. This is used for the package types
* that have one or more instances, each with different versions. The resulting array is sorted
* according to the PkgInfo's sort order.
*
* <p>To force the LocalSdk parser to load <b>everything</b>, simply call this method with the
* {@link PkgType#PKG_ALL} argument to load all the known package types.
*
* <p>Note: you can use this with {@link PkgType#PKG_TOOLS}, {@link PkgType#PKG_PLATFORM_TOOLS}
* and {@link PkgType#PKG_DOC} but since there can only be one package of these types, it is more
* efficient to use {@link #getPkgInfo(PkgType)} to query them.
*
* @param filters One or more of {@link PkgType#PKG_ADDON}, {@link PkgType#PKG_PLATFORM}, {@link
* PkgType#PKG_BUILD_TOOLS}, {@link PkgType#PKG_EXTRA}, {@link PkgType#PKG_SOURCE}, {@link
* PkgType#PKG_SYS_IMAGE}
* @return A list (possibly empty) of matching installed packages. Never returns null.
*/
@NonNull
public LocalPkgInfo[] getPkgsInfos(@NonNull EnumSet<PkgType> filters) {
List<LocalPkgInfo> list = Lists.newArrayList();
for (PkgType filter : filters) {
if (filter == PkgType.PKG_TOOLS
|| filter == PkgType.PKG_PLATFORM_TOOLS
|| filter == PkgType.PKG_DOC
|| filter == PkgType.PKG_NDK) {
LocalPkgInfo info = getPkgInfo(filter);
if (info != null) {
list.add(info);
}
} else {
synchronized (mLocalPackages) {
Collection<LocalPkgInfo> existing = mLocalPackages.get(filter);
assert existing != null; // Multimap returns an empty set if not found
if (!existing.isEmpty()) {
list.addAll(existing);
continue;
}
File subDir = new File(mSdkRoot, filter.getFolderName());
if (!mVisitedDirs.containsEntry(filter, new LocalDirInfo.MapComparator(subDir))) {
switch (filter) {
case PKG_BUILD_TOOLS:
scanBuildTools(subDir, existing);
break;
case PKG_PLATFORM:
scanPlatforms(subDir, existing);
break;
case PKG_SYS_IMAGE:
scanSysImages(subDir, existing, false);
break;
case PKG_ADDON_SYS_IMAGE:
scanSysImages(subDir, existing, true);
break;
case PKG_ADDON:
scanAddons(subDir, existing);
break;
case PKG_SAMPLE:
scanSamples(subDir, existing);
break;
case PKG_SOURCE:
scanSources(subDir, existing);
break;
case PKG_EXTRA:
scanExtras(subDir, existing);
break;
case PKG_TOOLS:
case PKG_PLATFORM_TOOLS:
case PKG_DOC:
case PKG_NDK:
break;
default:
throw new IllegalArgumentException("Unsupported pkg type " + filter.toString());
}
mVisitedDirs.put(filter, new LocalDirInfo(mFileOp, subDir));
list.addAll(existing);
}
}
}
}
Collections.sort(list);
return list.toArray(new LocalPkgInfo[list.size()]);
}
protected void clear() {
dcEndpoints.clear();
dcRacks.clear();
currentLocations.clear();
}
/** Removes current DC/rack assignment for ep */
protected void removeEndpoint(InetAddress ep) {
if (!currentLocations.containsKey(ep)) return;
Pair<String, String> current = currentLocations.remove(ep);
dcEndpoints.remove(current.left, ep);
dcRacks.get(current.left).remove(current.right, ep);
}
