@Override
public <F extends CallableDescriptor> void check(
@NotNull ResolvedCall<F> resolvedCall, @NotNull BasicCallResolutionContext context) {
JetExpression expression = context.call.getCalleeExpression();
if (expression == null) {
return;
}
// checking that only invoke or inlinable extension called on function parameter
CallableDescriptor targetDescriptor = resolvedCall.getResultingDescriptor();
checkCallWithReceiver(
context, targetDescriptor, resolvedCall.getDispatchReceiver(), expression);
checkCallWithReceiver(
context, targetDescriptor, resolvedCall.getExtensionReceiver(), expression);
if (inlinableParameters.contains(targetDescriptor)) {
if (!isInsideCall(expression)) {
context.trace.report(Errors.USAGE_IS_NOT_INLINABLE.on(expression, expression, descriptor));
}
}
for (Map.Entry<ValueParameterDescriptor, ResolvedValueArgument> entry :
resolvedCall.getValueArguments().entrySet()) {
ResolvedValueArgument value = entry.getValue();
ValueParameterDescriptor valueDescriptor = entry.getKey();
if (!(value instanceof DefaultValueArgument)) {
for (ValueArgument argument : value.getArguments()) {
checkValueParameter(context, targetDescriptor, argument, valueDescriptor);
}
}
}
checkVisibility(targetDescriptor, expression, context);
checkRecursion(context, targetDescriptor, expression);
}
@Nullable
private ConstructorDescriptor getDelegatedConstructor(
@NotNull ConstructorDescriptor constructor) {
ResolvedCall<ConstructorDescriptor> call =
trace.get(CONSTRUCTOR_RESOLVED_DELEGATION_CALL, constructor);
return call == null || !call.getStatus().isSuccess()
? null
: call.getResultingDescriptor().getOriginal();
}
@NotNull
private static FunctionDescriptor standardFunction(
ClassDescriptor classDescriptor, String name, Project project, KotlinType... parameterTypes) {
ModuleDescriptorImpl emptyModule = KotlinTestUtils.createEmptyModule();
ContainerForTests container = InjectionKt.createContainerForTests(project, emptyModule);
emptyModule.setDependencies(emptyModule);
emptyModule.initialize(PackageFragmentProvider.Empty.INSTANCE);
LexicalScopeImpl lexicalScope =
new LexicalScopeImpl(
ImportingScope.Empty.INSTANCE,
classDescriptor,
false,
classDescriptor.getThisAsReceiverParameter(),
LexicalScopeKind.SYNTHETIC);
ExpressionTypingContext context =
ExpressionTypingContext.newContext(
new BindingTraceContext(),
lexicalScope,
DataFlowInfoFactory.EMPTY,
TypeUtils.NO_EXPECTED_TYPE);
OverloadResolutionResults<FunctionDescriptor> functions =
container
.getFakeCallResolver()
.resolveFakeCall(
context,
null,
Name.identifier(name),
null,
null,
FakeCallKind.OTHER,
parameterTypes);
for (ResolvedCall<? extends FunctionDescriptor> resolvedCall : functions.getResultingCalls()) {
List<ValueParameterDescriptor> unsubstitutedValueParameters =
resolvedCall.getResultingDescriptor().getValueParameters();
for (int i = 0, unsubstitutedValueParametersSize = unsubstitutedValueParameters.size();
i < unsubstitutedValueParametersSize;
i++) {
ValueParameterDescriptor unsubstitutedValueParameter = unsubstitutedValueParameters.get(i);
if (unsubstitutedValueParameter.getType().equals(parameterTypes[i])) {
return resolvedCall.getResultingDescriptor();
}
}
}
throw new IllegalArgumentException(
"Not found: kotlin::"
+ classDescriptor.getName()
+ "."
+ name
+ "("
+ Arrays.toString(parameterTypes)
+ ")");
}
@Nullable
private static CallableDescriptor getCalleeDescriptor(
@NotNull CallCheckerContext context,
@NotNull KtExpression expression,
boolean unwrapVariableAsFunction) {
if (!(expression instanceof KtSimpleNameExpression || expression instanceof KtThisExpression))
return null;
ResolvedCall<?> thisCall =
CallUtilKt.getResolvedCall(expression, context.getTrace().getBindingContext());
if (unwrapVariableAsFunction && thisCall instanceof VariableAsFunctionResolvedCall) {
return ((VariableAsFunctionResolvedCall) thisCall).getVariableCall().getResultingDescriptor();
}
return thisCall != null ? thisCall.getResultingDescriptor() : null;
}
public LambdaInfo(
@NotNull KtExpression expression,
@NotNull KotlinTypeMapper typeMapper,
boolean isCrossInline,
boolean isBoundCallableReference) {
this.isCrossInline = isCrossInline;
this.expression =
expression instanceof KtLambdaExpression
? ((KtLambdaExpression) expression).getFunctionLiteral()
: expression;
this.typeMapper = typeMapper;
this.isBoundCallableReference = isBoundCallableReference;
BindingContext bindingContext = typeMapper.getBindingContext();
FunctionDescriptor function = bindingContext.get(BindingContext.FUNCTION, this.expression);
if (function == null && expression instanceof KtCallableReferenceExpression) {
VariableDescriptor variableDescriptor =
bindingContext.get(BindingContext.VARIABLE, this.expression);
assert variableDescriptor instanceof VariableDescriptorWithAccessors
: "Reference expression not resolved to variable descriptor with accessors: "
+ expression.getText();
classDescriptor =
CodegenBinding.anonymousClassForCallable(bindingContext, variableDescriptor);
closureClassType = typeMapper.mapClass(classDescriptor);
SimpleFunctionDescriptor getFunction =
PropertyReferenceCodegen.findGetFunction(variableDescriptor);
functionDescriptor =
PropertyReferenceCodegen.createFakeOpenDescriptor(getFunction, classDescriptor);
ResolvedCall<?> resolvedCall =
CallUtilKt.getResolvedCallWithAssert(
((KtCallableReferenceExpression) expression).getCallableReference(), bindingContext);
propertyReferenceInfo =
new PropertyReferenceInfo(
(VariableDescriptor) resolvedCall.getResultingDescriptor(), getFunction);
} else {
propertyReferenceInfo = null;
functionDescriptor = function;
assert functionDescriptor != null
: "Function is not resolved to descriptor: " + expression.getText();
classDescriptor = anonymousClassForCallable(bindingContext, functionDescriptor);
closureClassType = asmTypeForAnonymousClass(bindingContext, functionDescriptor);
}
closure = bindingContext.get(CLOSURE, classDescriptor);
assert closure != null : "Closure for lambda should be not null " + expression.getText();
labels = InlineCodegen.getDeclarationLabels(expression, functionDescriptor);
}
protected void generateStub(
@Nullable ResolvedCall<?> resolvedCall, @NotNull ExpressionCodegen codegen) {
leaveTemps();
assert resolvedCall != null;
String message =
"Call is part of inline cycle: " + resolvedCall.getCall().getCallElement().getText();
AsmUtil.genThrow(codegen.v, "java/lang/UnsupportedOperationException", message);
}
@Nullable
private static JetFunction getFunctionDeclaration(@NotNull ResolvedCall<?> resolvedCall) {
PsiElement result = QuickFixUtil.safeGetDeclaration(resolvedCall.getResultingDescriptor());
if (result instanceof JetFunction) {
return (JetFunction) result;
}
return null;
}
@NotNull
public static JsNode translate(
@NotNull JetCallExpression expression,
@Nullable JsExpression receiver,
@NotNull TranslationContext context) {
ResolvedCall<? extends FunctionDescriptor> resolvedCall =
getFunctionResolvedCallWithAssert(expression, context.bindingContext());
if (isJsCall(resolvedCall)) {
return (new CallExpressionTranslator(expression, receiver, context)).translateJsCode();
}
JsExpression callExpression =
(new CallExpressionTranslator(expression, receiver, context)).translate();
if (!resolvedCall.isSafeCall() && shouldBeInlined(expression, context)) {
setInlineCallMetadata(callExpression, expression, resolvedCall, context);
}
return callExpression;
}
// this is hack for a[b]++ -> a.set(b, a.get(b) + 1). Frontend generate fake expression for
// a.get(b) + 1.
@NotNull
private TranslationContext contextWithValueParameterAliasInArrayGetAccess(
@NotNull JsExpression toSetTo) {
ResolvedCall<FunctionDescriptor> resolvedCall =
BindingUtils.getResolvedCallForArrayAccess(
bindingContext(), expression, /*isGetter = */ false);
List<ResolvedValueArgument> arguments = resolvedCall.getValueArgumentsByIndex();
if (arguments == null) {
throw new IllegalStateException(
"Failed to arrange value arguments by index: " + resolvedCall.getResultingDescriptor());
}
ResolvedValueArgument lastArgument = arguments.get(arguments.size() - 1);
assert lastArgument instanceof ExpressionValueArgument
: "Last argument of array-like setter must be ExpressionValueArgument: " + lastArgument;
ValueArgument valueArgument = ((ExpressionValueArgument) lastArgument).getValueArgument();
assert valueArgument != null;
JetExpression element = valueArgument.getArgumentExpression();
return context()
.innerContextWithAliasesForExpressions(Collections.singletonMap(element, toSetTo));
}
@Nullable
private KotlinType checkConventionForIterator(
@NotNull ExpressionTypingContext context,
@NotNull KtExpression loopRangeExpression,
@NotNull KotlinType iteratorType,
@NotNull String name,
@NotNull DiagnosticFactory1<KtExpression, KotlinType> ambiguity,
@NotNull DiagnosticFactory1<KtExpression, KotlinType> missing,
@NotNull DiagnosticFactory1<KtExpression, KotlinType> noneApplicable,
@NotNull WritableSlice<KtExpression, ResolvedCall<FunctionDescriptor>> resolvedCallKey) {
OverloadResolutionResults<FunctionDescriptor> nextResolutionResults =
fakeCallResolver.resolveFakeCall(
context,
new TransientReceiver(iteratorType),
Name.identifier(name),
loopRangeExpression);
if (nextResolutionResults.isAmbiguity()) {
context.trace.report(ambiguity.on(loopRangeExpression, iteratorType));
} else if (nextResolutionResults.isNothing()) {
context.trace.report(missing.on(loopRangeExpression, iteratorType));
} else if (!nextResolutionResults.isSuccess()) {
context.trace.report(noneApplicable.on(loopRangeExpression, iteratorType));
} else {
assert nextResolutionResults.isSuccess();
ResolvedCall<FunctionDescriptor> resolvedCall = nextResolutionResults.getResultingCall();
context.trace.record(resolvedCallKey, loopRangeExpression, resolvedCall);
FunctionDescriptor functionDescriptor = resolvedCall.getResultingDescriptor();
symbolUsageValidator.validateCall(
resolvedCall, functionDescriptor, context.trace, loopRangeExpression);
checkIfOperatorModifierPresent(loopRangeExpression, functionDescriptor, context.trace);
return functionDescriptor.getReturnType();
}
return null;
}
@Nullable
private DataFlowInfo resolveSecondaryConstructorDelegationCall(
@NotNull DataFlowInfo outerDataFlowInfo,
@NotNull BindingTrace trace,
@NotNull LexicalScope scope,
@NotNull JetSecondaryConstructor constructor,
@NotNull ConstructorDescriptor descriptor,
@NotNull CallChecker callChecker) {
OverloadResolutionResults<?> results =
callResolver.resolveConstructorDelegationCall(
trace,
scope,
outerDataFlowInfo,
descriptor,
constructor.getDelegationCall(),
callChecker);
if (results != null && results.isSingleResult()) {
ResolvedCall<? extends CallableDescriptor> resolvedCall = results.getResultingCall();
recordConstructorDelegationCall(trace, descriptor, resolvedCall);
return resolvedCall.getDataFlowInfoForArguments().getResultInfo();
}
return null;
}
@Nullable
public KotlinType checkIterableConvention(
@NotNull ExpressionReceiver loopRange, ExpressionTypingContext context) {
KtExpression loopRangeExpression = loopRange.getExpression();
// Make a fake call loopRange.iterator(), and try to resolve it
Name iterator = Name.identifier("iterator");
Pair<Call, OverloadResolutionResults<FunctionDescriptor>> calls =
fakeCallResolver.makeAndResolveFakeCall(
loopRange,
context,
Collections.<KtExpression>emptyList(),
iterator,
loopRangeExpression,
FakeCallKind.ITERATOR,
loopRangeExpression);
OverloadResolutionResults<FunctionDescriptor> iteratorResolutionResults = calls.getSecond();
if (iteratorResolutionResults.isSuccess()) {
ResolvedCall<FunctionDescriptor> iteratorResolvedCall =
iteratorResolutionResults.getResultingCall();
context.trace.record(
LOOP_RANGE_ITERATOR_RESOLVED_CALL, loopRangeExpression, iteratorResolvedCall);
FunctionDescriptor iteratorFunction = iteratorResolvedCall.getResultingDescriptor();
checkIfOperatorModifierPresent(loopRangeExpression, iteratorFunction, context.trace);
symbolUsageValidator.validateCall(
iteratorResolvedCall, iteratorFunction, context.trace, loopRangeExpression);
KotlinType iteratorType = iteratorFunction.getReturnType();
KotlinType hasNextType =
checkConventionForIterator(
context,
loopRangeExpression,
iteratorType,
"hasNext",
HAS_NEXT_FUNCTION_AMBIGUITY,
HAS_NEXT_MISSING,
HAS_NEXT_FUNCTION_NONE_APPLICABLE,
LOOP_RANGE_HAS_NEXT_RESOLVED_CALL);
if (hasNextType != null && !builtIns.isBooleanOrSubtype(hasNextType)) {
context.trace.report(HAS_NEXT_FUNCTION_TYPE_MISMATCH.on(loopRangeExpression, hasNextType));
}
return checkConventionForIterator(
context,
loopRangeExpression,
iteratorType,
"next",
NEXT_AMBIGUITY,
NEXT_MISSING,
NEXT_NONE_APPLICABLE,
LOOP_RANGE_NEXT_RESOLVED_CALL);
} else {
if (iteratorResolutionResults.isAmbiguity()) {
context.trace.report(
ITERATOR_AMBIGUITY.on(
loopRangeExpression, iteratorResolutionResults.getResultingCalls()));
} else {
context.trace.report(ITERATOR_MISSING.on(loopRangeExpression));
}
}
return null;
}
public KotlinTypeInfo visitIfExpression(
KtIfExpression ifExpression,
ExpressionTypingContext contextWithExpectedType,
boolean isStatement) {
ExpressionTypingContext context = contextWithExpectedType.replaceExpectedType(NO_EXPECTED_TYPE);
KtExpression condition = ifExpression.getCondition();
DataFlowInfo conditionDataFlowInfo = checkCondition(context.scope, condition, context);
KtExpression elseBranch = ifExpression.getElse();
KtExpression thenBranch = ifExpression.getThen();
LexicalWritableScope thenScope = newWritableScopeImpl(context, "Then scope");
LexicalWritableScope elseScope = newWritableScopeImpl(context, "Else scope");
DataFlowInfo thenInfo =
components
.dataFlowAnalyzer
.extractDataFlowInfoFromCondition(condition, true, context)
.and(conditionDataFlowInfo);
DataFlowInfo elseInfo =
components
.dataFlowAnalyzer
.extractDataFlowInfoFromCondition(condition, false, context)
.and(conditionDataFlowInfo);
if (elseBranch == null) {
if (thenBranch != null) {
KotlinTypeInfo result =
getTypeInfoWhenOnlyOneBranchIsPresent(
thenBranch,
thenScope,
thenInfo,
elseInfo,
contextWithExpectedType,
ifExpression,
isStatement);
// If jump was possible, take condition check info as the jump info
return result.getJumpOutPossible()
? result.replaceJumpOutPossible(true).replaceJumpFlowInfo(conditionDataFlowInfo)
: result;
}
return TypeInfoFactoryKt.createTypeInfo(
components.dataFlowAnalyzer.checkImplicitCast(
components.builtIns.getUnitType(),
ifExpression,
contextWithExpectedType,
isStatement),
thenInfo.or(elseInfo));
}
if (thenBranch == null) {
return getTypeInfoWhenOnlyOneBranchIsPresent(
elseBranch,
elseScope,
elseInfo,
thenInfo,
contextWithExpectedType,
ifExpression,
isStatement);
}
KtPsiFactory psiFactory = KtPsiFactoryKt.KtPsiFactory(ifExpression);
KtBlockExpression thenBlock = psiFactory.wrapInABlockWrapper(thenBranch);
KtBlockExpression elseBlock = psiFactory.wrapInABlockWrapper(elseBranch);
Call callForIf =
createCallForSpecialConstruction(
ifExpression, ifExpression, Lists.newArrayList(thenBlock, elseBlock));
MutableDataFlowInfoForArguments dataFlowInfoForArguments =
createDataFlowInfoForArgumentsForIfCall(callForIf, thenInfo, elseInfo);
ResolvedCall<FunctionDescriptor> resolvedCall =
components.controlStructureTypingUtils.resolveSpecialConstructionAsCall(
callForIf,
ResolveConstruct.IF,
Lists.newArrayList("thenBranch", "elseBranch"),
Lists.newArrayList(false, false),
contextWithExpectedType,
dataFlowInfoForArguments);
BindingContext bindingContext = context.trace.getBindingContext();
KotlinTypeInfo thenTypeInfo =
BindingContextUtils.getRecordedTypeInfo(thenBranch, bindingContext);
KotlinTypeInfo elseTypeInfo =
BindingContextUtils.getRecordedTypeInfo(elseBranch, bindingContext);
assert thenTypeInfo != null
: "'Then' branch of if expression was not processed: " + ifExpression;
assert elseTypeInfo != null
: "'Else' branch of if expression was not processed: " + ifExpression;
boolean loopBreakContinuePossible =
thenTypeInfo.getJumpOutPossible() || elseTypeInfo.getJumpOutPossible();
KotlinType thenType = thenTypeInfo.getType();
KotlinType elseType = elseTypeInfo.getType();
DataFlowInfo thenDataFlowInfo = thenTypeInfo.getDataFlowInfo();
DataFlowInfo elseDataFlowInfo = elseTypeInfo.getDataFlowInfo();
boolean jumpInThen = thenType != null && KotlinBuiltIns.isNothing(thenType);
boolean jumpInElse = elseType != null && KotlinBuiltIns.isNothing(elseType);
DataFlowInfo resultDataFlowInfo;
if (thenType == null && elseType == null) {
resultDataFlowInfo = thenDataFlowInfo.or(elseDataFlowInfo);
} else if (thenType == null || (jumpInThen && !jumpInElse)) {
resultDataFlowInfo = elseDataFlowInfo;
} else if (elseType == null || (jumpInElse && !jumpInThen)) {
resultDataFlowInfo = thenDataFlowInfo;
} else {
resultDataFlowInfo = thenDataFlowInfo.or(elseDataFlowInfo);
}
KotlinType resultType = resolvedCall.getResultingDescriptor().getReturnType();
// If break or continue was possible, take condition check info as the jump info
return TypeInfoFactoryKt.createTypeInfo(
components.dataFlowAnalyzer.checkImplicitCast(
resultType, ifExpression, contextWithExpectedType, isStatement),
resultDataFlowInfo,
loopBreakContinuePossible,
conditionDataFlowInfo);
}
@NotNull
@Override
protected List<IntentionAction> doCreateActions(@NotNull Diagnostic diagnostic) {
List<IntentionAction> actions = new LinkedList<IntentionAction>();
BindingContext context = ResolutionUtils.analyzeFully((JetFile) diagnostic.getPsiFile());
PsiElement diagnosticElement = diagnostic.getPsiElement();
if (!(diagnosticElement instanceof JetExpression)) {
LOG.error("Unexpected element: " + diagnosticElement.getText());
return Collections.emptyList();
}
JetExpression expression = (JetExpression) diagnosticElement;
JetType expectedType;
JetType expressionType;
if (diagnostic.getFactory() == Errors.TYPE_MISMATCH) {
DiagnosticWithParameters2<JetExpression, JetType, JetType> diagnosticWithParameters =
Errors.TYPE_MISMATCH.cast(diagnostic);
expectedType = diagnosticWithParameters.getA();
expressionType = diagnosticWithParameters.getB();
} else if (diagnostic.getFactory() == Errors.NULL_FOR_NONNULL_TYPE) {
DiagnosticWithParameters1<JetConstantExpression, JetType> diagnosticWithParameters =
Errors.NULL_FOR_NONNULL_TYPE.cast(diagnostic);
expectedType = diagnosticWithParameters.getA();
expressionType = TypeUtilsKt.makeNullable(expectedType);
} else if (diagnostic.getFactory() == Errors.CONSTANT_EXPECTED_TYPE_MISMATCH) {
DiagnosticWithParameters2<JetConstantExpression, String, JetType> diagnosticWithParameters =
Errors.CONSTANT_EXPECTED_TYPE_MISMATCH.cast(diagnostic);
expectedType = diagnosticWithParameters.getB();
expressionType = context.getType(expression);
if (expressionType == null) {
LOG.error("No type inferred: " + expression.getText());
return Collections.emptyList();
}
} else {
LOG.error("Unexpected diagnostic: " + DefaultErrorMessages.render(diagnostic));
return Collections.emptyList();
}
// We don't want to cast a cast or type-asserted expression:
if (!(expression instanceof JetBinaryExpressionWithTypeRHS)
&& !(expression.getParent() instanceof JetBinaryExpressionWithTypeRHS)) {
actions.add(new CastExpressionFix(expression, expectedType));
}
// Property initializer type mismatch property type:
JetProperty property = PsiTreeUtil.getParentOfType(expression, JetProperty.class);
if (property != null) {
JetPropertyAccessor getter = property.getGetter();
JetExpression initializer = property.getInitializer();
if (QuickFixUtil.canEvaluateTo(initializer, expression)
|| (getter != null
&& QuickFixUtil.canFunctionOrGetterReturnExpression(
property.getGetter(), expression))) {
LexicalScope scope =
CorePackage.getResolutionScope(
property, context, ResolutionUtils.getResolutionFacade(property));
JetType typeToInsert =
TypeUtils.approximateWithResolvableType(expressionType, scope, false);
actions.add(new ChangeVariableTypeFix(property, typeToInsert));
}
}
PsiElement expressionParent = expression.getParent();
// Mismatch in returned expression:
JetCallableDeclaration function =
expressionParent instanceof JetReturnExpression
? BindingContextUtilPackage.getTargetFunction(
(JetReturnExpression) expressionParent, context)
: PsiTreeUtil.getParentOfType(expression, JetFunction.class, true);
if (function instanceof JetFunction
&& QuickFixUtil.canFunctionOrGetterReturnExpression(function, expression)) {
LexicalScope scope =
CorePackage.getResolutionScope(
function, context, ResolutionUtils.getResolutionFacade(function));
JetType typeToInsert = TypeUtils.approximateWithResolvableType(expressionType, scope, false);
actions.add(new ChangeFunctionReturnTypeFix((JetFunction) function, typeToInsert));
}
// Fixing overloaded operators:
if (expression instanceof JetOperationExpression) {
ResolvedCall<?> resolvedCall = CallUtilPackage.getResolvedCall(expression, context);
if (resolvedCall != null) {
JetFunction declaration = getFunctionDeclaration(resolvedCall);
if (declaration != null) {
actions.add(new ChangeFunctionReturnTypeFix(declaration, expectedType));
}
}
}
// Change function return type when TYPE_MISMATCH is reported on call expression:
if (expression instanceof JetCallExpression) {
ResolvedCall<?> resolvedCall = CallUtilPackage.getResolvedCall(expression, context);
if (resolvedCall != null) {
JetFunction declaration = getFunctionDeclaration(resolvedCall);
if (declaration != null) {
actions.add(new ChangeFunctionReturnTypeFix(declaration, expectedType));
}
}
}
ResolvedCall<? extends CallableDescriptor> resolvedCall =
CallUtilPackage.getParentResolvedCall(expression, context, true);
if (resolvedCall != null) {
// to fix 'type mismatch' on 'if' branches
// todo: the same with 'when'
JetExpression parentIf = QuickFixUtil.getParentIfForBranch(expression);
JetExpression argumentExpression = (parentIf != null) ? parentIf : expression;
ValueArgument valueArgument =
CallUtilPackage.getValueArgumentForExpression(resolvedCall.getCall(), argumentExpression);
if (valueArgument != null) {
JetParameter correspondingParameter =
QuickFixUtil.getParameterDeclarationForValueArgument(resolvedCall, valueArgument);
JetType valueArgumentType =
diagnostic.getFactory() == Errors.NULL_FOR_NONNULL_TYPE
? expressionType
: context.getType(valueArgument.getArgumentExpression());
if (correspondingParameter != null && valueArgumentType != null) {
JetCallableDeclaration callable =
PsiTreeUtil.getParentOfType(
correspondingParameter, JetCallableDeclaration.class, true);
LexicalScope scope =
callable != null
? CorePackage.getResolutionScope(
callable, context, ResolutionUtils.getResolutionFacade(callable))
: null;
JetType typeToInsert =
TypeUtils.approximateWithResolvableType(valueArgumentType, scope, true);
actions.add(new ChangeParameterTypeFix(correspondingParameter, typeToInsert));
}
}
}
return actions;
}