use of jdk.vm.ci.meta.ResolvedJavaType in project graal by oracle.
the class SubstrateGraphBuilderPlugins method registerPinnedAllocatorPlugins.
private static void registerPinnedAllocatorPlugins(ConstantReflectionProvider constantReflection, InvocationPlugins plugins) {
Registration r = new Registration(plugins, PinnedAllocator.class);
r.register2("newInstance", Receiver.class, Class.class, new InvocationPlugin() {
@Override
public boolean apply(GraphBuilderContext b, ResolvedJavaMethod targetMethod, Receiver pinnedAllocator, ValueNode instanceClassNode) {
ResolvedJavaType instanceClass = typeValue(constantReflection, b, targetMethod, instanceClassNode, "instanceClass");
ValueNode pinnedAllocatorNode = pinnedAllocator.get();
b.addPush(JavaKind.Object, new NewPinnedInstanceNode(instanceClass, pinnedAllocatorNode));
return true;
}
});
r.register3("newArray", Receiver.class, Class.class, int.class, new InvocationPlugin() {
@Override
public boolean apply(GraphBuilderContext b, ResolvedJavaMethod targetMethod, Receiver pinnedAllocator, ValueNode componentTypeNode, ValueNode length) {
ResolvedJavaType componentType = typeValue(constantReflection, b, targetMethod, componentTypeNode, "componentType");
ValueNode pinnedAllocatorNode = pinnedAllocator.get();
b.addPush(JavaKind.Object, new NewPinnedArrayNode(componentType, length, pinnedAllocatorNode));
return true;
}
});
}
use of jdk.vm.ci.meta.ResolvedJavaType in project graal by oracle.
the class AnnotationSubstitutionProcessor method lookup.
@Override
public ResolvedJavaType lookup(ResolvedJavaType type) {
Delete deleteAnnotation = deleteAnnotations.get(type);
if (deleteAnnotation != null) {
throw new UnsupportedFeatureException(deleteErrorMessage(type, deleteAnnotation, true));
}
ResolvedJavaType substitution = typeSubstitutions.get(type);
if (substitution != null) {
return substitution;
}
return type;
}
use of jdk.vm.ci.meta.ResolvedJavaType in project graal by oracle.
the class AnnotationSubstitutionProcessor method handleAliasClass.
private void handleAliasClass(Class<?> annotatedClass, Class<?> originalClass) {
String expectedName = "Target_" + originalClass.getName().replace('.', '_').replace('$', '_');
if (VerifyNamingConventions.getValue()) {
guarantee(annotatedClass.getSimpleName().equals(expectedName), "Naming convention violation: %s must be named %s", annotatedClass, expectedName);
}
ResolvedJavaType original = metaAccess.lookupJavaType(originalClass);
ResolvedJavaType annotated = metaAccess.lookupJavaType(annotatedClass);
for (int i = 0; i < ARRAY_DIMENSIONS; i++) {
guarantee(!typeSubstitutions.containsKey(annotated), "Already registered: %s", annotated);
typeSubstitutions.put(annotated, original);
original = original.getArrayClass();
annotated = annotated.getArrayClass();
}
for (Method annotatedMethod : annotatedClass.getDeclaredMethods()) {
handleMethodInAliasClass(annotatedMethod, originalClass);
}
for (Constructor<?> annotatedMethod : annotatedClass.getDeclaredConstructors()) {
handleMethodInAliasClass(annotatedMethod, originalClass);
}
for (Field annotatedField : annotatedClass.getDeclaredFields()) {
handleFieldInAliasClass(annotatedField, originalClass);
}
}
use of jdk.vm.ci.meta.ResolvedJavaType in project graal by oracle.
the class IntrinsifyMethodHandlesInvocationPlugin method processInvokeWithMethodHandle.
@SuppressWarnings("try")
private void processInvokeWithMethodHandle(GraphBuilderContext b, BytecodeProvider bytecodeProvider, ResolvedJavaMethod methodHandleMethod, ValueNode[] methodHandleArguments) {
Plugins graphBuilderPlugins = new Plugins(((ReplacementsImpl) originalProviders.getReplacements()).getGraphBuilderPlugins());
registerInvocationPlugins(graphBuilderPlugins.getInvocationPlugins(), bytecodeProvider);
graphBuilderPlugins.prependParameterPlugin(new MethodHandlesParameterPlugin(methodHandleArguments));
graphBuilderPlugins.clearInlineInvokePlugins();
graphBuilderPlugins.prependInlineInvokePlugin(new MethodHandlesInlineInvokePlugin());
graphBuilderPlugins.prependNodePlugin(new MethodHandlePlugin(originalProviders.getConstantReflection().getMethodHandleAccess(), false));
/* We do all the word type rewriting because parameters to the lambda can be word types. */
SnippetReflectionProvider originalSnippetReflection = GraalAccess.getOriginalSnippetReflection();
WordOperationPlugin wordOperationPlugin = new WordOperationPlugin(originalSnippetReflection, new WordTypes(originalProviders.getMetaAccess(), FrameAccess.getWordKind()));
graphBuilderPlugins.appendInlineInvokePlugin(wordOperationPlugin);
graphBuilderPlugins.appendTypePlugin(wordOperationPlugin);
graphBuilderPlugins.appendTypePlugin(new TrustedInterfaceTypePlugin());
graphBuilderPlugins.appendNodePlugin(wordOperationPlugin);
GraphBuilderConfiguration graphBuilderConfig = GraphBuilderConfiguration.getSnippetDefault(graphBuilderPlugins);
GraphBuilderPhase.Instance graphBuilder = new GraphBuilderPhase.Instance(originalProviders.getMetaAccess(), originalProviders.getStampProvider(), originalProviders.getConstantReflection(), originalProviders.getConstantFieldProvider(), graphBuilderConfig, OptimisticOptimizations.NONE, null);
DebugContext debug = b.getDebug();
StructuredGraph graph = new StructuredGraph.Builder(b.getOptions(), debug).method(toOriginal(methodHandleMethod)).build();
try (DebugContext.Scope s = debug.scope("IntrinsifyMethodHandles", graph)) {
graphBuilder.apply(graph);
/*
* We do not care about the improved type information from Pi nodes, so we just delete
* them to simplify our graph.
*/
for (PiNode pi : graph.getNodes(PiNode.TYPE)) {
pi.replaceAndDelete(pi.object());
}
/*
* Support for MethodHandle that adapt the input type to a more generic type, i.e., a
* MethodHandle that does a dynamic type check on a parameter.
*/
for (UnaryOpLogicNode node : graph.getNodes().filter(UnaryOpLogicNode.class).filter(v -> v instanceof IsNullNode || v instanceof InstanceOfNode)) {
ValueNode value = node.getValue();
if (value instanceof ParameterNode) {
/*
* We just assume that the InstanceOfNode or IsNullNode are used in an If and
* the true-successor is actually the branch we want. If that assumption is
* wrong, nothing bad happens - we will just continue to report the invocation
* as unsupported because the updated stamp for the parameter will not simplify
* the graph.
*/
if (node instanceof InstanceOfNode) {
InstanceOfNode inst = (InstanceOfNode) node;
TypeReference typeRef = inst.type();
value.setStamp(new ObjectStamp(typeRef.getType(), typeRef.isExact(), !inst.allowsNull(), false));
} else {
assert node instanceof IsNullNode;
ResolvedJavaType type = value.stamp(NodeView.DEFAULT).javaType(originalProviders.getMetaAccess());
value.setStamp(new ObjectStamp(type, false, /* non-null */
true, false));
}
}
}
/*
* The canonicalizer converts unsafe field accesses for get/set method handles back to
* high-level field load and store nodes.
*/
new CanonicalizerPhase().apply(graph, new PhaseContext(originalProviders));
for (FixedGuardNode guard : graph.getNodes(FixedGuardNode.TYPE)) {
if (guard.next() instanceof AccessFieldNode && guard.condition() instanceof IsNullNode && guard.isNegated() && ((IsNullNode) guard.condition()).getValue() == ((AccessFieldNode) guard.next()).object()) {
/*
* Method handles to load and stores fields have null checks. Remove them, since
* the null check is implicitly done by the field access.
*/
GraphUtil.removeFixedWithUnusedInputs(guard);
}
}
debug.dump(DebugContext.VERY_DETAILED_LEVEL, graph, "Final intrinisfication graph");
/*
* After parsing (and recursive inlining during parsing), the graph must contain only
* one invocation (and therefore only one MethodCallTargetNode), plus the parameters,
* constants, start, and return nodes.
*/
Node singleFunctionality = null;
ReturnNode singleReturn = null;
for (Node node : graph.getNodes()) {
if (node == graph.start() || node instanceof ParameterNode || node instanceof ConstantNode || node instanceof FrameState) {
/* Ignore the allowed framework around the nodes we care about. */
continue;
} else if (node instanceof Invoke) {
/* We check the MethodCallTargetNode, so we can ignore the invoke. */
continue;
} else if ((node instanceof MethodCallTargetNode || node instanceof LoadFieldNode || node instanceof StoreFieldNode) && singleFunctionality == null) {
singleFunctionality = node;
continue;
} else if (node instanceof ReturnNode && singleReturn == null) {
singleReturn = (ReturnNode) node;
continue;
}
throw new UnsupportedFeatureException("Invoke with MethodHandle argument could not be reduced to at most a single call: " + methodHandleMethod.format("%H.%n(%p)"));
}
if (singleFunctionality instanceof MethodCallTargetNode) {
MethodCallTargetNode singleCallTarget = (MethodCallTargetNode) singleFunctionality;
assert singleReturn.result() == null || singleReturn.result() == singleCallTarget.invoke();
/*
* Replace the originalTarget with the replacementTarget. Note that the
* replacementTarget node belongs to a different graph than originalTarget, so we
* need to match parameter back to the original graph and allocate a new
* MethodCallTargetNode for the original graph.
*/
ValueNode[] replacedArguments = new ValueNode[singleCallTarget.arguments().size()];
for (int i = 0; i < replacedArguments.length; i++) {
replacedArguments[i] = lookup(b, methodHandleArguments, singleCallTarget.arguments().get(i));
}
b.handleReplacedInvoke(singleCallTarget.invokeKind(), lookup(singleCallTarget.targetMethod()), replacedArguments, false);
} else if (singleFunctionality instanceof LoadFieldNode) {
LoadFieldNode fieldLoad = (LoadFieldNode) singleFunctionality;
b.addPush(b.getInvokeReturnType().getJavaKind(), LoadFieldNode.create(null, lookup(b, methodHandleArguments, fieldLoad.object()), lookup(fieldLoad.field())));
} else if (singleFunctionality instanceof StoreFieldNode) {
StoreFieldNode fieldStore = (StoreFieldNode) singleFunctionality;
b.add(new StoreFieldNode(lookup(b, methodHandleArguments, fieldStore.object()), lookup(fieldStore.field()), lookup(b, methodHandleArguments, fieldStore.value())));
} else if (singleReturn.result() != null) {
/* Replace the invocation with he constant result. */
JavaConstant constantResult = singleReturn.result().asJavaConstant();
assert b.getInvokeReturnType().getJavaKind() == constantResult.getJavaKind();
b.addPush(constantResult.getJavaKind(), ConstantNode.forConstant(lookup(constantResult), universeProviders.getMetaAccess()));
} else {
/* No invoke and no return value, so nothing to do. */
assert b.getInvokeReturnType().getJavaKind() == JavaKind.Void;
}
} catch (Throwable ex) {
throw debug.handle(ex);
}
}
use of jdk.vm.ci.meta.ResolvedJavaType in project graal by oracle.
the class JNIJavaCallWrapperMethod method loadAndUnboxArguments.
private List<Pair<ValueNode, ResolvedJavaType>> loadAndUnboxArguments(JNIGraphKit kit, HostedProviders providers, ResolvedJavaMethod invokeMethod, Signature invokeSignature) {
MetaAccessProvider metaAccess = providers.getMetaAccess();
List<Pair<ValueNode, ResolvedJavaType>> args = new ArrayList<>();
int javaIndex = 0;
javaIndex += metaAccess.lookupJavaType(JNIEnvironment.class).getJavaKind().getSlotCount();
if (!invokeMethod.isStatic()) {
JavaKind kind = metaAccess.lookupJavaType(JNIObjectHandle.class).getJavaKind();
ValueNode handle = kit.loadLocal(javaIndex, kind);
ValueNode unboxed = kit.unboxHandle(handle);
ValueNode receiver;
ResolvedJavaType receiverClass = invokeMethod.getDeclaringClass();
if (invokeMethod.isConstructor()) {
/*
* Our target method is a constructor and we might be called via `NewObject`, in
* which case we need to allocate the object before calling the constructor. We can
* detect when this is the case because unlike with `Call<Type>Method`, we are
* passed the object hub of our target class in place of the receiver object.
*/
Constant hub = providers.getConstantReflection().asObjectHub(receiverClass);
ConstantNode hubNode = kit.createConstant(hub, JavaKind.Object);
kit.startIf(kit.unique(new ObjectEqualsNode(unboxed, hubNode)), BranchProbabilityNode.FAST_PATH_PROBABILITY);
kit.thenPart();
ValueNode created = kit.append(new NewInstanceNode(receiverClass, true));
AbstractMergeNode merge = kit.endIf();
receiver = kit.unique(new ValuePhiNode(StampFactory.object(), merge, new ValueNode[] { created, unboxed }));
} else {
receiver = unboxed;
}
args.add(Pair.create(receiver, receiverClass));
}
javaIndex += metaAccess.lookupJavaType(JNIObjectHandle.class).getJavaKind().getSlotCount();
if (nonVirtual) {
javaIndex += metaAccess.lookupJavaType(JNIObjectHandle.class).getJavaKind().getSlotCount();
}
javaIndex += metaAccess.lookupJavaType(JNIMethodId.class).getJavaKind().getSlotCount();
int count = invokeSignature.getParameterCount(false);
if (callVariant == CallVariant.VARARGS) {
for (int i = 0; i < count; i++) {
ResolvedJavaType type = (ResolvedJavaType) invokeSignature.getParameterType(i, null);
JavaKind kind = type.getJavaKind();
JavaKind loadKind = kind;
if (loadKind == JavaKind.Float) {
// C varargs promote float to double
loadKind = JavaKind.Double;
}
ValueNode value = kit.loadLocal(javaIndex, loadKind);
if (kind == JavaKind.Float) {
value = kit.unique(new FloatConvertNode(FloatConvert.D2F, value));
} else if (kind.isObject()) {
value = kit.unboxHandle(value);
}
args.add(Pair.create(value, type));
javaIndex += loadKind.getSlotCount();
}
} else if (callVariant == CallVariant.ARRAY) {
ResolvedJavaType elementType = metaAccess.lookupJavaType(JNIValue.class);
int elementSize = SizeOf.get(JNIValue.class);
ValueNode array = kit.loadLocal(javaIndex, elementType.getJavaKind());
for (int i = 0; i < count; i++) {
ResolvedJavaType type = (ResolvedJavaType) invokeSignature.getParameterType(i, null);
JavaKind readKind = type.getJavaKind();
StructFieldInfo fieldInfo = getJNIValueOffsetOf(elementType, readKind);
int offset = i * elementSize + fieldInfo.getOffsetInfo().getProperty();
ConstantNode offsetConstant = kit.createConstant(JavaConstant.forInt(offset), providers.getWordTypes().getWordKind());
OffsetAddressNode address = kit.unique(new OffsetAddressNode(array, offsetConstant));
LocationIdentity locationIdentity = fieldInfo.getLocationIdentity();
if (locationIdentity == null) {
locationIdentity = LocationIdentity.any();
}
Stamp readStamp = getNarrowStamp(providers, readKind);
ValueNode value = kit.append(new CInterfaceReadNode(address, locationIdentity, readStamp, BarrierType.NONE, "args[" + i + "]"));
JavaKind stackKind = readKind.getStackKind();
if (readKind != stackKind) {
assert stackKind.getBitCount() > readKind.getBitCount() : "read kind must be narrower than stack kind";
if (readKind.isUnsigned()) {
// needed or another op may illegally sign-extend
value = kit.unique(new ZeroExtendNode(value, stackKind.getBitCount()));
} else {
value = kit.unique(new SignExtendNode(value, stackKind.getBitCount()));
}
} else if (readKind.isObject()) {
value = kit.unboxHandle(value);
}
args.add(Pair.create(value, type));
}
} else if (callVariant == CallVariant.VA_LIST) {
ValueNode valist = kit.loadLocal(javaIndex, metaAccess.lookupJavaType(WordBase.class).getJavaKind());
for (int i = 0; i < count; i++) {
ResolvedJavaType type = (ResolvedJavaType) invokeSignature.getParameterType(i, null);
JavaKind loadKind = type.getJavaKind();
if (loadKind.isObject()) {
loadKind = providers.getWordTypes().getWordKind();
}
ValueNode value = kit.append(new VaListNextArgNode(loadKind, valist));
if (type.getJavaKind().isObject()) {
value = kit.unboxHandle(value);
}
args.add(Pair.create(value, type));
}
} else {
throw VMError.unsupportedFeature("Call variant: " + callVariant);
}
return args;
}
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