TypePtr FunctionCall::checkParamsAndReturn(AnalysisResultPtr ar,
TypePtr type, bool coerce,
FunctionScopePtr func) {
ConstructPtr self = shared_from_this();
ar->getDependencyGraph()->add(DependencyGraph::KindOfFunctionCall,
ar->getName(), getText(),
self, func->getFullName(), func->getStmt());
TypePtr frt = func->getReturnType();
if (!frt) {
m_voidReturn = true;
setActualType(TypePtr());
if (!type->is(Type::KindOfAny)) {
if (!m_allowVoidReturn && ar->isSecondPass() && !func->isAbstract()) {
ar->getCodeError()->record(self, CodeError::UseVoidReturn, self);
}
m_voidWrapper = true;
}
} else {
m_voidReturn = false;
m_voidWrapper = false;
type = checkTypesImpl(ar, type, frt, coerce);
}
m_extraArg = func->inferParamTypes(ar, self, m_params, m_valid);
m_variableArgument = func->isVariableArgument();
if (m_valid) {
m_implementedType.reset();
} else {
m_implementedType = Type::Variant;
}
return type;
}
TypePtr NewObjectExpression::inferTypes(AnalysisResultPtr ar, TypePtr type,
bool coerce) {
reset();
ConstructPtr self = shared_from_this();
if (!m_name.empty()) {
ClassScopePtr cls = ar->resolveClass(m_name);
if (cls) {
m_name = cls->getName();
}
if (!cls || cls->isRedeclaring()) {
if (cls) {
m_redeclared = true;
ar->getScope()->getVariables()->
setAttribute(VariableTable::NeedGlobalPointer);
}
if (!cls && ar->isFirstPass()) {
ar->getCodeError()->record(self, CodeError::UnknownClass, self);
}
if (m_params) m_params->inferAndCheck(ar, NEW_TYPE(Any), false);
return NEW_TYPE(Object);
}
if (cls->isVolatile()) {
ar->getScope()->getVariables()->
setAttribute(VariableTable::NeedGlobalPointer);
}
m_dynamic = cls->derivesFromRedeclaring();
m_validClass = true;
FunctionScopePtr func = cls->findConstructor(ar, true);
if (!func) {
if (m_params) {
if (!m_dynamic && m_params->getCount()) {
if (ar->isFirstPass()) {
ar->getCodeError()->record(self, CodeError::BadConstructorCall,
self);
}
m_params->setOutputCount(0);
}
m_params->inferAndCheck(ar, NEW_TYPE(Any), false);
}
} else {
m_extraArg = func->inferParamTypes(ar, self, m_params,
m_validClass);
m_variableArgument = func->isVariableArgument();
}
return Type::CreateObjectType(m_name);
} else {
ar->containsDynamicClass();
if (ar->isFirstPass()) {
ar->getCodeError()->record(self, CodeError::UseDynamicClass,
self);
}
if (m_params) {
m_params->markParams(false);
}
}
m_nameExp->inferAndCheck(ar, Type::String, false);
if (m_params) m_params->inferAndCheck(ar, NEW_TYPE(Any), false);
return Type::Variant;//NEW_TYPE(Object);
}
TypePtr FunctionCall::checkParamsAndReturn(AnalysisResultPtr ar,
TypePtr type, bool coerce,
FunctionScopePtr func,
bool arrayParams) {
ConstructPtr self = shared_from_this();
TypePtr frt = func->getReturnType();
if (!frt) {
m_voidReturn = true;
setActualType(TypePtr());
if (!type->is(Type::KindOfAny)) {
if (!m_allowVoidReturn && !func->isFirstPass() && !func->isAbstract()) {
Compiler::Error(Compiler::UseVoidReturn, self);
}
m_voidWrapper = true;
}
} else {
m_voidReturn = false;
m_voidWrapper = false;
type = checkTypesImpl(ar, type, frt, coerce);
}
if (arrayParams) {
m_extraArg = 0;
(*m_params)[0]->inferAndCheck(ar, Type::Array, false);
} else {
m_extraArg = func->inferParamTypes(ar, self, m_params, m_valid);
}
m_variableArgument = func->isVariableArgument();
if (m_valid) {
m_implementedType.reset();
} else {
m_implementedType = Type::Variant;
}
return type;
}
TypePtr FunctionCall::checkParamsAndReturn(AnalysisResultPtr ar,
TypePtr type, bool coerce,
FunctionScopePtr func,
bool arrayParams) {
#ifdef HPHP_DETAILED_TYPE_INF_ASSERT
assert(func->hasUser(getScope(), BlockScope::UseKindCaller));
#endif /* HPHP_DETAILED_TYPE_INF_ASSERT */
ConstructPtr self = shared_from_this();
TypePtr frt;
{
TRY_LOCK(func);
func->getInferTypesMutex().assertOwnedBySelf();
assert(!func->inVisitScopes() || getScope() == func);
frt = func->getReturnType();
}
if (!frt) {
m_voidReturn = true;
setActualType(TypePtr());
if (!isUnused() && !type->is(Type::KindOfAny)) {
if (!hasContext(ReturnContext) &&
!func->isFirstPass() && !func->isAbstract()) {
if (Option::WholeProgram || !func->getContainingClass() ||
func->isStatic() || func->isFinal() || func->isPrivate()) {
Compiler::Error(Compiler::UseVoidReturn, self);
}
}
if (!Type::IsMappedToVariant(type)) {
setExpectedType(type);
}
m_voidWrapper = true;
}
} else {
m_voidReturn = false;
m_voidWrapper = false;
type = checkTypesImpl(ar, type, frt, coerce);
assert(m_actualType);
}
if (arrayParams) {
m_extraArg = 0;
(*m_params)[0]->inferAndCheck(ar, Type::Array, false);
} else {
m_extraArg = func->inferParamTypes(ar, self, m_params, m_valid);
}
m_variableArgument = func->isVariableArgument();
if (m_valid) {
m_implementedType.reset();
} else {
m_implementedType = Type::Variant;
}
assert(type);
return type;
}
TypePtr NewObjectExpression::inferTypes(AnalysisResultPtr ar, TypePtr type,
bool coerce) {
reset();
m_classScope.reset();
m_funcScope.reset();
ConstructPtr self = shared_from_this();
if (!m_name.empty()) {
ClassScopePtr cls = resolveClass(getScope());
m_name = m_className;
if (!cls) {
if (isRedeclared()) {
getScope()->getVariables()->
setAttribute(VariableTable::NeedGlobalPointer);
} else if (getScope()->isFirstPass()) {
Compiler::Error(Compiler::UnknownClass, self);
}
if (m_params) m_params->inferAndCheck(ar, Type::Any, false);
return Type::Object;
}
if (cls->isVolatile() && !isPresent()) {
getScope()->getVariables()->
setAttribute(VariableTable::NeedGlobalPointer);
}
m_dynamic = cls->derivesFromRedeclaring();
bool valid = true;
FunctionScopePtr func = cls->findConstructor(ar, true);
if (!func) {
if (m_params) {
if (!m_dynamic && m_params->getCount()) {
if (getScope()->isFirstPass()) {
Compiler::Error(Compiler::BadConstructorCall, self);
}
m_params->setOutputCount(0);
}
m_params->inferAndCheck(ar, Type::Some, false);
}
} else {
m_extraArg = func->inferParamTypes(ar, self, m_params,
valid);
m_variableArgument = func->isVariableArgument();
}
if (valid) {
m_classScope = cls;
m_funcScope = func;
}
if (!valid || m_dynamic) {
m_implementedType = Type::Object;
} else {
m_implementedType.reset();
}
return Type::CreateObjectType(m_name);
} else {
ar->containsDynamicClass();
if (m_params) {
m_params->markParams(false);
}
}
m_implementedType.reset();
m_nameExp->inferAndCheck(ar, Type::String, false);
if (m_params) m_params->inferAndCheck(ar, Type::Any, false);
return Type::Object;
}
TypePtr NewObjectExpression::inferTypes(AnalysisResultPtr ar, TypePtr type,
bool coerce) {
reset();
m_classScope.reset();
FunctionScopePtr prev = m_funcScope;
m_funcScope.reset();
ConstructPtr self = shared_from_this();
if (!m_name.empty() && !isStatic()) {
ClassScopePtr cls = resolveClassWithChecks();
m_name = m_className;
if (!cls) {
if (m_params) m_params->inferAndCheck(ar, Type::Any, false);
return Type::Object;
}
if (getScope()->isFirstPass() &&
(cls->isTrait() ?
!isSelf() && !isParent() :
cls->isInterface() || cls->isAbstract())) {
Compiler::Error(Compiler::InvalidInstantiation, self);
}
if (cls->isVolatile() && !isPresent()) {
getScope()->getVariables()->
setAttribute(VariableTable::NeedGlobalPointer);
}
m_dynamic = cls->derivesFromRedeclaring();
bool valid = true;
FunctionScopePtr func = cls->findConstructor(ar, true);
if (!func) {
if (m_params) {
if (!m_dynamic && m_params->getCount()) {
if (getScope()->isFirstPass()) {
Compiler::Error(Compiler::BadConstructorCall, self);
}
}
m_params->inferAndCheck(ar, Type::Some, false);
}
} else {
if (func != prev) func->addNewObjCaller(getScope());
m_extraArg = func->inferParamTypes(ar, self, m_params, valid);
m_variableArgument = func->isVariableArgument();
}
if (valid) {
m_classScope = cls;
m_funcScope = func;
}
if (!valid || m_dynamic) {
m_implementedType = Type::Object;
} else {
m_implementedType.reset();
}
return Type::CreateObjectType(m_name);
} else {
if (m_params) {
m_params->markParams(canInvokeFewArgs());
}
}
m_implementedType.reset();
m_nameExp->inferAndCheck(ar, Type::String, false);
if (m_params) m_params->inferAndCheck(ar, Type::Any, false);
return Type::Object;
}
TypePtr FunctionCall::checkParamsAndReturn(AnalysisResultPtr ar,
TypePtr type, bool coerce,
FunctionScopePtr func,
bool arrayParams) {
#ifdef HPHP_DETAILED_TYPE_INF_ASSERT
assert(func->hasUser(getScope(), BlockScope::UseKindCaller));
#endif /* HPHP_DETAILED_TYPE_INF_ASSERT */
ConstructPtr self = shared_from_this();
TypePtr frt;
{
TRY_LOCK(func);
func->getInferTypesMutex().assertOwnedBySelf();
assert(!func->inVisitScopes() || getScope() == func);
frt = func->getReturnType();
}
// fix return type for generators and async functions here, keep the
// infered return type in function scope to allow further optimizations
if (func->isGenerator()) {
frt = Type::GetType(Type::KindOfObject, "Generator");
} else if (func->isAsync()) {
frt = Type::GetType(Type::KindOfObject, "WaitHandle");
}
m_voidUsed = false;
if (!frt) {
m_voidReturn = true;
setActualType(TypePtr());
if (!isUnused() && !type->is(Type::KindOfAny)) {
if (!hasContext(ReturnContext) &&
!func->isFirstPass() && !func->isAbstract()) {
if (Option::WholeProgram || !func->getContainingClass() ||
func->isStatic() || func->isFinal() || func->isPrivate()) {
m_voidUsed = true;
}
}
if (!Type::IsMappedToVariant(type)) {
setExpectedType(type);
}
}
} else {
m_voidReturn = false;
type = checkTypesImpl(ar, type, frt, coerce);
assert(m_actualType);
}
if (arrayParams) {
m_extraArg = 0;
(*m_params)[0]->inferAndCheck(ar, Type::Array, false);
} else {
m_extraArg = func->inferParamTypes(ar, self, m_params, m_valid);
}
m_variableArgument = func->allowsVariableArguments();
if (m_valid) {
m_implementedType.reset();
} else {
m_implementedType = Type::Variant;
}
assert(type);
return type;
}
