void bar() {
int (*placeholder)(int) = foo('c'); (void)placeholder;
})cpp"},
- // Arithmetic on typedef types yields plain integer types
+ // Arithmetic on typedef types preserves typedef types
{R"cpp(typedef long NSInteger;
void varDecl() {
NSInteger a = 2 * 5;
R"cpp(typedef long NSInteger;
void varDecl() {
NSInteger a = 2 * 5;
- long placeholder = a * 7; NSInteger b = placeholder + 3;
+ NSInteger placeholder = a * 7; NSInteger b = placeholder + 3;
})cpp"},
};
for (const auto &IO : InputOutputs) {
// IGNORED: Warning is disabled with IgnoreConversionFromTypes=global_size_t.
i = j + v.size();
- // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:7: warning: narrowing conversion from 'long long' to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
+ // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:7: warning: narrowing conversion from 'global_size_t' (aka 'long long') to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
// IGNORED: Warning is disabled with IgnoreConversionFromTypes=global_size_t.
}
int j;
vector v;
i = j + v.size();
- // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:7: warning: narrowing conversion from 'long long' to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
+ // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:7: warning: narrowing conversion from 'global_size_t' (aka 'long long') to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
// IGNORED: Warning is disabled with IgnoreConversionFromTypes=global_size_t.
}
// IGNORED: Warning is disabled with IgnoreConversionFromTypes=global_size_t.
i += j + v.size();
- // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:8: warning: narrowing conversion from 'long long' to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
+ // CHECK-MESSAGES-DEFAULT: :[[@LINE-1]]:8: warning: narrowing conversion from 'global_size_t' (aka 'long long') to signed type 'int' is implementation-defined [cppcoreguidelines-narrowing-conversions]
// IGNORED: Warning is disabled with IgnoreConversionFromTypes=global_size_t.
}
if (IntTy->isComplexType() || IntTy->isRealFloatingType()) return true;
if (SkipCast) return false;
if (IntTy->isIntegerType()) {
- QualType fpTy = cast<ComplexType>(ComplexTy)->getElementType();
+ QualType fpTy = ComplexTy->castAs<ComplexType>()->getElementType();
IntExpr = S.ImpCastExprToType(IntExpr.get(), fpTy, CK_IntegralToFloating);
IntExpr = S.ImpCastExprToType(IntExpr.get(), ComplexTy,
CK_FloatingRealToComplex);
return false;
}
+// This handles complex/complex, complex/float, or float/complex.
+// When both operands are complex, the shorter operand is converted to the
+// type of the longer, and that is the type of the result. This corresponds
+// to what is done when combining two real floating-point operands.
+// The fun begins when size promotion occur across type domains.
+// From H&S 6.3.4: When one operand is complex and the other is a real
+// floating-point type, the less precise type is converted, within it's
+// real or complex domain, to the precision of the other type. For example,
+// when combining a "long double" with a "double _Complex", the
+// "double _Complex" is promoted to "long double _Complex".
+static QualType handleComplexFloatConversion(Sema &S, ExprResult &Shorter,
+ QualType ShorterType,
+ QualType LongerType,
+ bool PromotePrecision) {
+ bool LongerIsComplex = isa<ComplexType>(LongerType.getCanonicalType());
+ QualType Result =
+ LongerIsComplex ? LongerType : S.Context.getComplexType(LongerType);
+
+ if (PromotePrecision) {
+ if (isa<ComplexType>(ShorterType.getCanonicalType())) {
+ Shorter =
+ S.ImpCastExprToType(Shorter.get(), Result, CK_FloatingComplexCast);
+ } else {
+ if (LongerIsComplex)
+ LongerType = LongerType->castAs<ComplexType>()->getElementType();
+ Shorter = S.ImpCastExprToType(Shorter.get(), LongerType, CK_FloatingCast);
+ }
+ }
+ return Result;
+}
+
/// Handle arithmetic conversion with complex types. Helper function of
/// UsualArithmeticConversions()
-static QualType handleComplexFloatConversion(Sema &S, ExprResult &LHS,
- ExprResult &RHS, QualType LHSType,
- QualType RHSType,
- bool IsCompAssign) {
+static QualType handleComplexConversion(Sema &S, ExprResult &LHS,
+ ExprResult &RHS, QualType LHSType,
+ QualType RHSType, bool IsCompAssign) {
// if we have an integer operand, the result is the complex type.
if (!handleIntegerToComplexFloatConversion(S, RHS, LHS, RHSType, LHSType,
- /*skipCast*/false))
+ /*SkipCast=*/false))
return LHSType;
if (!handleIntegerToComplexFloatConversion(S, LHS, RHS, LHSType, RHSType,
- /*skipCast*/IsCompAssign))
+ /*SkipCast=*/IsCompAssign))
return RHSType;
- // This handles complex/complex, complex/float, or float/complex.
- // When both operands are complex, the shorter operand is converted to the
- // type of the longer, and that is the type of the result. This corresponds
- // to what is done when combining two real floating-point operands.
- // The fun begins when size promotion occur across type domains.
- // From H&S 6.3.4: When one operand is complex and the other is a real
- // floating-point type, the less precise type is converted, within it's
- // real or complex domain, to the precision of the other type. For example,
- // when combining a "long double" with a "double _Complex", the
- // "double _Complex" is promoted to "long double _Complex".
-
// Compute the rank of the two types, regardless of whether they are complex.
int Order = S.Context.getFloatingTypeOrder(LHSType, RHSType);
-
- auto *LHSComplexType = dyn_cast<ComplexType>(LHSType);
- auto *RHSComplexType = dyn_cast<ComplexType>(RHSType);
- QualType LHSElementType =
- LHSComplexType ? LHSComplexType->getElementType() : LHSType;
- QualType RHSElementType =
- RHSComplexType ? RHSComplexType->getElementType() : RHSType;
-
- QualType ResultType = S.Context.getComplexType(LHSElementType);
- if (Order < 0) {
+ if (Order < 0)
// Promote the precision of the LHS if not an assignment.
- ResultType = S.Context.getComplexType(RHSElementType);
- if (!IsCompAssign) {
- if (LHSComplexType)
- LHS =
- S.ImpCastExprToType(LHS.get(), ResultType, CK_FloatingComplexCast);
- else
- LHS = S.ImpCastExprToType(LHS.get(), RHSElementType, CK_FloatingCast);
- }
- } else if (Order > 0) {
- // Promote the precision of the RHS.
- if (RHSComplexType)
- RHS = S.ImpCastExprToType(RHS.get(), ResultType, CK_FloatingComplexCast);
- else
- RHS = S.ImpCastExprToType(RHS.get(), LHSElementType, CK_FloatingCast);
- }
- return ResultType;
+ return handleComplexFloatConversion(S, LHS, LHSType, RHSType,
+ /*PromotePrecision=*/!IsCompAssign);
+ // Promote the precision of the RHS unless it is already the same as the LHS.
+ return handleComplexFloatConversion(S, RHS, RHSType, LHSType,
+ /*PromotePrecision=*/Order > 0);
}
/// Handle arithmetic conversion from integer to float. Helper function
// For conversion purposes, we ignore any qualifiers.
// For example, "const float" and "float" are equivalent.
- QualType LHSType =
- Context.getCanonicalType(LHS.get()->getType()).getUnqualifiedType();
- QualType RHSType =
- Context.getCanonicalType(RHS.get()->getType()).getUnqualifiedType();
+ QualType LHSType = LHS.get()->getType().getUnqualifiedType();
+ QualType RHSType = RHS.get()->getType().getUnqualifiedType();
// For conversion purposes, we ignore any atomic qualifier on the LHS.
if (const AtomicType *AtomicLHS = LHSType->getAs<AtomicType>())
LHSType = AtomicLHS->getValueType();
// If both types are identical, no conversion is needed.
- if (LHSType == RHSType)
- return LHSType;
+ if (Context.hasSameType(LHSType, RHSType))
+ return Context.getCommonSugaredType(LHSType, RHSType);
// If either side is a non-arithmetic type (e.g. a pointer), we are done.
// The caller can deal with this (e.g. pointer + int).
LHS = ImpCastExprToType(LHS.get(), LHSType, CK_IntegralCast);
// If both types are identical, no conversion is needed.
- if (LHSType == RHSType)
- return LHSType;
+ if (Context.hasSameType(LHSType, RHSType))
+ return Context.getCommonSugaredType(LHSType, RHSType);
// At this point, we have two different arithmetic types.
// Handle complex types first (C99 6.3.1.8p1).
if (LHSType->isComplexType() || RHSType->isComplexType())
- return handleComplexFloatConversion(*this, LHS, RHS, LHSType, RHSType,
- ACK == ACK_CompAssign);
+ return handleComplexConversion(*this, LHS, RHS, LHSType, RHSType,
+ ACK == ACK_CompAssign);
// Now handle "real" floating types (i.e. float, double, long double).
if (LHSType->isRealFloatingType() || RHSType->isRealFloatingType())
return true;
}
-/// Handle when one or both operands are void type.
-static QualType checkConditionalVoidType(Sema &S, ExprResult &LHS,
- ExprResult &RHS) {
- Expr *LHSExpr = LHS.get();
- Expr *RHSExpr = RHS.get();
-
- if (!LHSExpr->getType()->isVoidType())
- S.Diag(RHSExpr->getBeginLoc(), diag::ext_typecheck_cond_one_void)
- << RHSExpr->getSourceRange();
- if (!RHSExpr->getType()->isVoidType())
- S.Diag(LHSExpr->getBeginLoc(), diag::ext_typecheck_cond_one_void)
- << LHSExpr->getSourceRange();
- LHS = S.ImpCastExprToType(LHS.get(), S.Context.VoidTy, CK_ToVoid);
- RHS = S.ImpCastExprToType(RHS.get(), S.Context.VoidTy, CK_ToVoid);
- return S.Context.VoidTy;
-}
-
/// Return false if the NullExpr can be promoted to PointerTy,
/// true otherwise.
static bool checkConditionalNullPointer(Sema &S, ExprResult &NullExpr,
if (S.Context.hasSameType(LHSTy, RHSTy)) {
// Two identical pointers types are always compatible.
- return LHSTy;
+ return S.Context.getCommonSugaredType(LHSTy, RHSTy);
}
QualType lhptee, rhptee;
// And if they're both bfloat (which isn't arithmetic), that's fine too.
if (LHSTy->isBFloat16Type() && RHSTy->isBFloat16Type()) {
- return LHSTy;
+ return Context.getCommonSugaredType(LHSTy, RHSTy);
}
// If both operands are the same structure or union type, the result is that
if (LHSRT->getDecl() == RHSRT->getDecl())
// "If both the operands have structure or union type, the result has
// that type." This implies that CV qualifiers are dropped.
- return LHSTy.getUnqualifiedType();
+ return Context.getCommonSugaredType(LHSTy.getUnqualifiedType(),
+ RHSTy.getUnqualifiedType());
// FIXME: Type of conditional expression must be complete in C mode.
}
// C99 6.5.15p5: "If both operands have void type, the result has void type."
// The following || allows only one side to be void (a GCC-ism).
if (LHSTy->isVoidType() || RHSTy->isVoidType()) {
- return checkConditionalVoidType(*this, LHS, RHS);
+ QualType ResTy;
+ if (LHSTy->isVoidType() && RHSTy->isVoidType()) {
+ ResTy = Context.getCommonSugaredType(LHSTy, RHSTy);
+ } else if (RHSTy->isVoidType()) {
+ ResTy = RHSTy;
+ Diag(RHS.get()->getBeginLoc(), diag::ext_typecheck_cond_one_void)
+ << RHS.get()->getSourceRange();
+ } else {
+ ResTy = LHSTy;
+ Diag(LHS.get()->getBeginLoc(), diag::ext_typecheck_cond_one_void)
+ << LHS.get()->getSourceRange();
+ }
+ LHS = ImpCastExprToType(LHS.get(), ResTy, CK_ToVoid);
+ RHS = ImpCastExprToType(RHS.get(), ResTy, CK_ToVoid);
+ return ResTy;
}
// C99 6.5.15p6 - "if one operand is a null pointer constant, the result has
// Allow ?: operations in which both operands have the same
// built-in sizeless type.
if (LHSTy->isSizelessBuiltinType() && Context.hasSameType(LHSTy, RHSTy))
- return LHSTy;
+ return Context.getCommonSugaredType(LHSTy, RHSTy);
// Emit a better diagnostic if one of the expressions is a null pointer
// constant and the other is not a pointer type. In this case, the user most
// If the vector types are identical, return.
if (Context.hasSameType(LHSType, RHSType))
- return LHSType;
+ return Context.getCommonSugaredType(LHSType, RHSType);
// If we have compatible AltiVec and GCC vector types, use the AltiVec type.
if (LHSVecType && RHSVecType &&
assert((LHSMatType || RHSMatType) && "At least one operand must be a matrix");
if (Context.hasSameType(LHSType, RHSType))
- return LHSType;
+ return Context.getCommonSugaredType(LHSType, RHSType);
// Type conversion may change LHS/RHS. Keep copies to the original results, in
// case we have to return InvalidOperands.
if (LHSMatType->getNumColumns() != RHSMatType->getNumRows())
return InvalidOperands(Loc, LHS, RHS);
- if (!Context.hasSameType(LHSMatType->getElementType(),
- RHSMatType->getElementType()))
+ if (Context.hasSameType(LHSMatType, RHSMatType))
+ return Context.getCommonSugaredType(
+ LHS.get()->getType().getUnqualifiedType(),
+ RHS.get()->getType().getUnqualifiedType());
+
+ QualType LHSELTy = LHSMatType->getElementType(),
+ RHSELTy = RHSMatType->getElementType();
+ if (!Context.hasSameType(LHSELTy, RHSELTy))
return InvalidOperands(Loc, LHS, RHS);
- return Context.getConstantMatrixType(LHSMatType->getElementType(),
- LHSMatType->getNumRows(),
- RHSMatType->getNumColumns());
+ return Context.getConstantMatrixType(
+ Context.getCommonSugaredType(LHSELTy, RHSELTy),
+ LHSMatType->getNumRows(), RHSMatType->getNumColumns());
}
return CheckMatrixElementwiseOperands(LHS, RHS, Loc, IsCompAssign);
}
<< LHSType << RHSType;
return {};
}
- ResultType = LHSType;
+ ResultType = Context.getCommonSugaredType(LHSType, RHSType);
} else if (LHSVT || RHSVT) {
ResultType = CheckVectorOperands(
LHS, RHS, QuestionLoc, /*isCompAssign*/ false, /*AllowBothBool*/ true,
return {};
} else {
// Both are scalar.
- QualType ResultElementTy;
- LHSType = LHSType.getCanonicalType().getUnqualifiedType();
- RHSType = RHSType.getCanonicalType().getUnqualifiedType();
-
- if (Context.hasSameType(LHSType, RHSType))
- ResultElementTy = LHSType;
- else
- ResultElementTy =
- UsualArithmeticConversions(LHS, RHS, QuestionLoc, ACK_Conditional);
+ LHSType = LHSType.getUnqualifiedType();
+ RHSType = RHSType.getUnqualifiedType();
+ QualType ResultElementTy =
+ Context.hasSameType(LHSType, RHSType)
+ ? Context.getCommonSugaredType(LHSType, RHSType)
+ : UsualArithmeticConversions(LHS, RHS, QuestionLoc,
+ ACK_Conditional);
if (ResultElementTy->isEnumeralType()) {
Diag(QuestionLoc, diag::err_conditional_vector_operand_type)
// -- Both the second and third operands have type void; the result is of
// type void and is a prvalue.
if (LVoid && RVoid)
- return Context.VoidTy;
+ return Context.getCommonSugaredType(LTy, RTy);
// Neither holds, error.
Diag(QuestionLoc, diag::err_conditional_void_nonvoid)
if (LHS.get()->getObjectKind() == OK_BitField ||
RHS.get()->getObjectKind() == OK_BitField)
OK = OK_BitField;
-
- // If we have function pointer types, unify them anyway to unify their
- // exception specifications, if any.
- if (LTy->isFunctionPointerType() || LTy->isMemberFunctionPointerType()) {
- Qualifiers Qs = LTy.getQualifiers();
- LTy = FindCompositePointerType(QuestionLoc, LHS, RHS,
- /*ConvertArgs*/false);
- LTy = Context.getQualifiedType(LTy, Qs);
-
- assert(!LTy.isNull() && "failed to find composite pointer type for "
- "canonically equivalent function ptr types");
- assert(Context.hasSameType(LTy, RTy) && "bad composite pointer type");
- }
-
- return LTy;
+ return Context.getCommonSugaredType(LTy, RTy);
}
// C++11 [expr.cond]p5
// is a prvalue temporary of the result type, which is
// copy-initialized from either the second operand or the third
// operand depending on the value of the first operand.
- if (Context.getCanonicalType(LTy) == Context.getCanonicalType(RTy)) {
+ if (Context.hasSameType(LTy, RTy)) {
if (LTy->isRecordType()) {
// The operands have class type. Make a temporary copy.
- InitializedEntity Entity = InitializedEntity::InitializeTemporary(LTy);
-
- ExprResult LHSCopy = PerformCopyInitialization(Entity,
- SourceLocation(),
- LHS);
+ ExprResult LHSCopy = PerformCopyInitialization(
+ InitializedEntity::InitializeTemporary(LTy), SourceLocation(), LHS);
if (LHSCopy.isInvalid())
return QualType();
- ExprResult RHSCopy = PerformCopyInitialization(Entity,
- SourceLocation(),
- RHS);
+ ExprResult RHSCopy = PerformCopyInitialization(
+ InitializedEntity::InitializeTemporary(RTy), SourceLocation(), RHS);
if (RHSCopy.isInvalid())
return QualType();
LHS = LHSCopy;
RHS = RHSCopy;
}
-
- // If we have function pointer types, unify them anyway to unify their
- // exception specifications, if any.
- if (LTy->isFunctionPointerType() || LTy->isMemberFunctionPointerType()) {
- LTy = FindCompositePointerType(QuestionLoc, LHS, RHS);
- assert(!LTy.isNull() && "failed to find composite pointer type for "
- "canonically equivalent function ptr types");
- }
-
- return LTy;
+ return Context.getCommonSugaredType(LTy, RTy);
}
// Extension: conditional operator involving vector types.
Steps[I].Quals.addConst();
// Rebuild the composite type.
- QualType Composite = Composite1;
+ QualType Composite = Context.getCommonSugaredType(Composite1, Composite2);
for (auto &S : llvm::reverse(Steps))
Composite = S.rebuild(Context, Composite);
// CHECK: FunctionDecl {{.*}} func_14 'float (float, float)'
// CHECK: CompoundStmt
// CHECK-NEXT: ReturnStmt
-// CHECK-NEXT: BinaryOperator {{.*}} 'float' '+' ConstRoundingMode=towardzero
+// CHECK-NEXT: BinaryOperator {{.*}} 'float':'float' '+' ConstRoundingMode=towardzero
float func_16(float x, float y) {
#pragma STDC FENV_ROUND FE_TOWARDZERO
#include <stdint.h>
-// CHECK: @[[INT:.*]] = private unnamed_addr constant { i16, i16, [6 x i8] } { i16 0, i16 11, [6 x i8] c"'int'\00" }
+// CHECK: @[[INT:.*]] = private unnamed_addr constant { i16, i16, [22 x i8] } { i16 0, i16 11, [22 x i8] c"'int32_t' (aka 'int')\00" }
// CHECK: @[[LINE_100:.*]] = private unnamed_addr global {{.*}}, i32 100, i32 5 {{.*}} @[[INT]]
-// CHECK: @[[UINT:.*]] = private unnamed_addr constant { i16, i16, [15 x i8] } { i16 0, i16 10, [15 x i8] c"'unsigned int'\00" }
+// CHECK: @[[UINT:.*]] = private unnamed_addr constant { i16, i16, [32 x i8] } { i16 0, i16 10, [32 x i8] c"'uint32_t' (aka 'unsigned int')\00" }
// CHECK: @[[LINE_200:.*]] = private unnamed_addr global {{.*}}, i32 200, i32 5 {{.*}} @[[UINT]]
// CHECK: @[[LINE_300:.*]] = private unnamed_addr global {{.*}}, i32 300, i32 5 {{.*}} @[[INT]]
int bb = 0;
bb += 1i;
+typedef __complex__ float ComplexFloat;
+int cc = 1 + (ComplexFloat)(1.0iF);
+
result = arr*ii;
result = ii*brr;
a *= b;
// expected-error@-1 {{invalid operands to binary expression ('sx10x10_t' (aka 'float __attribute__((matrix_type(10, 10)))') and 'sx5x10_t' (aka 'float __attribute__((matrix_type(5, 10)))'))}}
b = a * a;
- // expected-error@-1 {{assigning to 'sx5x10_t' (aka 'float __attribute__((matrix_type(5, 10)))') from incompatible type 'float __attribute__((matrix_type(10, 10)))'}}
+ // expected-error@-1 {{assigning to 'sx5x10_t' (aka 'float __attribute__((matrix_type(5, 10)))') from incompatible type 'sx10x10_t' (aka 'float __attribute__((matrix_type(10, 10)))')}}
// Check element type mismatches.
a = b * c;
b *= c;
// expected-error@-1 {{invalid operands to binary expression ('sx5x10_t' (aka 'float __attribute__((matrix_type(5, 10)))') and 'ix10x5_t' (aka 'int __attribute__((matrix_type(10, 5)))'))}}
d = a * a;
- // expected-error@-1 {{assigning to 'ix10x10_t' (aka 'int __attribute__((matrix_type(10, 10)))') from incompatible type 'float __attribute__((matrix_type(10, 10)))'}}
+ // expected-error@-1 {{assigning to 'ix10x10_t' (aka 'int __attribute__((matrix_type(10, 10)))') from incompatible type 'sx10x10_t' (aka 'float __attribute__((matrix_type(10, 10)))')}}
p = a * a;
- // expected-error@-1 {{assigning to 'char *' from incompatible type 'float __attribute__((matrix_type(10, 10)))'}}
+ // expected-error@-1 {{assigning to 'char *' from incompatible type 'sx10x10_t' (aka 'float __attribute__((matrix_type(10, 10)))')}}
}
void mat_scalar_multiply(sx10x10_t a, sx5x10_t b, float sf, char *p) {
p = c ? nonnullP2 : nonnullP2;
p = c ? nonnullP2 : nullableP2; // expected-warning{{implicit conversion from nullable pointer 'IntP _Nullable' (aka 'int *') to non-nullable pointer type 'int * _Nonnull'}}
- p = c ? nullableP2 : nonnullP2; // expected-warning{{implicit conversion from nullable pointer 'NullableIntP1' (aka 'int *') to non-nullable pointer type 'int * _Nonnull'}}
+ p = c ? nullableP2 : nonnullP2; // expected-warning{{implicit conversion from nullable pointer 'IntP _Nullable' (aka 'int *') to non-nullable pointer type 'int * _Nonnull'}}
p = c ? nullableP2 : nullableP2; // expected-warning{{implicit conversion from nullable pointer 'NullableIntP1' (aka 'int *') to non-nullable pointer type 'int * _Nonnull'}}
}
--- /dev/null
+// RUN: %clang_cc1 -fsyntax-only -verify %s -std=c99 -triple aarch64-arm-none-eabi -target-feature +bf16 -target-feature +sve
+
+typedef struct N {} N;
+
+typedef int B1;
+typedef B1 X1;
+typedef B1 Y1;
+
+typedef void B2;
+typedef B2 X2;
+typedef B2 Y2;
+
+typedef struct B3 {} B3;
+typedef B3 X3;
+typedef B3 Y3;
+
+typedef struct B4 {} *B4;
+typedef B4 X4;
+typedef B4 Y4;
+
+typedef __bf16 B5;
+typedef B5 X5;
+typedef B5 Y5;
+
+typedef __SVInt8_t B6;
+typedef B6 X6;
+typedef B6 Y6;
+
+N t1 = 0 ? (X1)0 : (Y1)0; // expected-error {{incompatible type 'B1'}}
+N t2 = 0 ? (X2)0 : 0; // expected-error {{incompatible type 'X2'}}
+N t3 = 0 ? 0 : (Y2)0; // expected-error {{incompatible type 'Y2'}}
+N t4 = 0 ? (X2)0 : (Y2)0; // expected-error {{incompatible type 'B2'}}
+N t5 = 0 ? (X3){} : (Y3){}; // expected-error {{incompatible type 'B3'}}
+N t6 = 0 ? (X4)0 : (Y4)0; // expected-error {{incompatible type 'B4'}}
+
+X5 x5;
+Y5 y5;
+N t7 = 0 ? x5 : y5; // expected-error {{incompatible type 'B5'}}
+
+void f8() {
+ X6 x6;
+ Y6 y6;
+ N t8 = 0 ? x6 : y6; // expected-error {{incompatible type 'B6'}}
+}
// Conversion to bool doesn't actually discard the imaginary part.
take<bool>(Complex);
+
+ using B = _Complex double;
+ B c;
+ c *= double();
}
template <typename EltTy0, unsigned R0, unsigned C0, typename EltTy1, unsigned R1, unsigned C1, typename EltTy2, unsigned R2, unsigned C2>
typename MyMatrix<EltTy2, R2, C2>::matrix_t multiply(MyMatrix<EltTy0, R0, C0> &A, MyMatrix<EltTy1, R1, C1> &B) {
char *v1 = A.value * B.value;
- // expected-error@-1 {{cannot initialize a variable of type 'char *' with an rvalue of type 'unsigned int __attribute__((matrix_type(2, 2)))'}}
+ // expected-error@-1 {{cannot initialize a variable of type 'char *' with an rvalue of type 'matrix_t' (aka 'unsigned int __attribute__((matrix_type(2, 2)))')}}
// expected-error@-2 {{invalid operands to binary expression ('matrix_t' (aka 'unsigned int __attribute__((matrix_type(3, 2)))') and 'matrix_t' (aka 'unsigned int __attribute__((matrix_type(3, 3)))'))}}
// expected-error@-3 {{invalid operands to binary expression ('matrix_t' (aka 'float __attribute__((matrix_type(2, 2)))') and 'matrix_t' (aka 'unsigned int __attribute__((matrix_type(2, 2)))'))}}
--- /dev/null
+// RUN: %clang_cc1 -fsyntax-only -verify %s -std=c++20 -fenable-matrix
+
+enum class N {};
+
+using B1 = int;
+using X1 = B1;
+using Y1 = B1;
+
+using B2 = void;
+using X2 = B2;
+using Y2 = B2;
+
+using A3 = char __attribute__((vector_size(4)));
+using B3 = A3;
+using X3 = B3;
+using Y3 = B3;
+
+using A4 = float;
+using B4 = A4 __attribute__((matrix_type(4, 4)));
+using X4 = B4;
+using Y4 = B4;
+
+using X5 = A4 __attribute__((matrix_type(3, 4)));
+using Y5 = A4 __attribute__((matrix_type(4, 3)));
+
+N t1 = 0 ? X1() : Y1(); // expected-error {{rvalue of type 'B1'}}
+N t2 = 0 ? X2() : Y2(); // expected-error {{rvalue of type 'B2'}}
+
+const X1 &xt3 = 0;
+const Y1 &yt3 = 0;
+N t3 = 0 ? xt3 : yt3; // expected-error {{lvalue of type 'const B1'}}
+
+N t4 = X3() + Y3(); // expected-error {{rvalue of type 'B3'}}
+
+N t5 = A3() ? X3() : Y3(); // expected-error {{rvalue of type 'B3'}}
+N t6 = A3() ? X1() : Y1(); // expected-error {{vector condition type 'A3' (vector of 4 'char' values) and result type '__attribute__((__vector_size__(4 * sizeof(B1)))) B1' (vector of 4 'B1' values) do not have elements of the same size}}
+
+N t7 = X4() + Y4(); // expected-error {{rvalue of type 'B4'}}
+N t8 = X4() * Y4(); // expected-error {{rvalue of type 'B4'}}
+N t9 = X5() * Y5(); // expected-error {{rvalue of type 'A4 __attribute__((matrix_type(3, 3)))'}}
return true ? a : b;
if (false)
return a;
- return N(); // expected-error {{but deduced as 'SARS (*)() throw(Man, Vibrio)' (aka 'void (*)() throw(Man, Vibrio)')}}
+ return N(); // expected-error {{but deduced as 'Virus (*)() throw(Man, Vibrio)' (aka 'void (*)() throw(Man, Vibrio)')}}
}
#endif
// <rdar://problem/13557053>
void testTypeOf(NSInteger dW, NSInteger dH) {
- NSLog(@"dW %d dH %d",({ __typeof__(dW) __a = (dW); __a < 0 ? -__a : __a; }),({ __typeof__(dH) __a = (dH); __a < 0 ? -__a : __a; })); // expected-warning 2 {{format specifies type 'int' but the argument has type 'long'}}
+ NSLog(@"dW %d dH %d",({ __typeof__(dW) __a = (dW); __a < 0 ? -__a : __a; }),({ __typeof__(dH) __a = (dH); __a < 0 ? -__a : __a; })); // expected-warning 2 {{values of type 'NSInteger' should not be used as format arguments; add an explicit cast to 'long' instead}}
}
void testUnicode(void) {
#ifdef ADD_I64
(void)(int64_t(8000000000000000000ll) + int64_t(2000000000000000000ll));
- // CHECK-ADD_I64: 8000000000000000000 + 2000000000000000000 cannot be represented in type '{{long( long)?}}'
+ // CHECK-ADD_I64: 8000000000000000000 + 2000000000000000000 cannot be represented in type '{{int64_t|long( long)?}}'
#endif
#ifdef ADD_I128
# else
puts("__int128 not supported");
# endif
- // CHECK-ADD_I128: {{0x40000000000000000000000000000000 \+ 0x40000000000000000000000000000000 cannot be represented in type '__int128'|__int128 not supported}}
+ // CHECK-ADD_I128: {{0x40000000000000000000000000000000 \+ 0x40000000000000000000000000000000 cannot be represented in type '__int128_t'|__int128 not supported}}
#endif
}
// ABORT: no-recover.cpp:[[@LINE-2]]:5: runtime error: unsigned integer overflow: 2271560481 + 3989547399 cannot be represented in type 'unsigned int'
(void)(uint64_t(10000000000000000000ull) + uint64_t(9000000000000000000ull));
- // RECOVER: 10000000000000000000 + 9000000000000000000 cannot be represented in type 'unsigned {{long( long)?}}'
+ // RECOVER: 10000000000000000000 + 9000000000000000000 cannot be represented in type '{{uint64_t|unsigned long( long)?}}'
// SILENT-RECOVER-NOT: runtime error
// ABORT-NOT: runtime error
}
#ifdef SUB_I32
(void)(int32_t(-2) - int32_t(0x7fffffff));
- // CHECK-SUB_I32: sub-overflow.cpp:[[@LINE-1]]:22: runtime error: signed integer overflow: -2 - 2147483647 cannot be represented in type 'int'
+ // CHECK-SUB_I32: sub-overflow.cpp:[[@LINE-1]]:22: runtime error: signed integer overflow: -2 - 2147483647 cannot be represented in type '{{int32_t|int}}'
#endif
#ifdef SUB_I64
(void)(int64_t(-8000000000000000000ll) - int64_t(2000000000000000000ll));
- // CHECK-SUB_I64: -8000000000000000000 - 2000000000000000000 cannot be represented in type '{{long( long)?}}'
+ // CHECK-SUB_I64: -8000000000000000000 - 2000000000000000000 cannot be represented in type '{{int64_t|long( long)?}}'
#endif
#ifdef SUB_I128
# else
puts("__int128 not supported");
# endif
- // CHECK-SUB_I128: {{0x80000000000000000000000000000000 - 1 cannot be represented in type '__int128'|__int128 not supported}}
+ // CHECK-SUB_I128: {{0x80000000000000000000000000000000 - 1 cannot be represented in type '__int128_t'|__int128 not supported}}
#endif
}
#ifdef ADD_I64
(void)(uint64_t(10000000000000000000ull) + uint64_t(9000000000000000000ull));
- // CHECK-ADD_I64: 10000000000000000000 + 9000000000000000000 cannot be represented in type 'unsigned {{long( long)?}}'
+ // CHECK-ADD_I64: 10000000000000000000 + 9000000000000000000 cannot be represented in type '{{uint64_t|unsigned long( long)?}}'
#endif
#ifdef ADD_I128
# else
puts("__int128 not supported");
# endif
- // CHECK-ADD_I128: {{0x80000000000000000000000000000000 \+ 0x80000000000000000000000000000000 cannot be represented in type 'unsigned __int128'|__int128 not supported}}
+ // CHECK-ADD_I128: {{0x80000000000000000000000000000000 \+ 0x80000000000000000000000000000000 cannot be represented in type '__uint128_t'|__int128 not supported}}
#endif
}
(void)(uint16_t(0xffff) * uint16_t(0x8001));
(void)(uint32_t(0xffffffff) * uint32_t(0x2));
- // CHECK: umul-overflow.cpp:15:31: runtime error: unsigned integer overflow: 4294967295 * 2 cannot be represented in type 'unsigned int'
+ // CHECK: umul-overflow.cpp:15:31: runtime error: unsigned integer overflow: 4294967295 * 2 cannot be represented in type '{{uint32_t|unsigned int}}'
return 0;
}
#ifdef SUB_I32
(void)(uint32_t(1) - uint32_t(2));
- // CHECK-SUB_I32: usub-overflow.cpp:[[@LINE-1]]:22: runtime error: unsigned integer overflow: 1 - 2 cannot be represented in type 'unsigned int'
+ // CHECK-SUB_I32: usub-overflow.cpp:[[@LINE-1]]:22: runtime error: unsigned integer overflow: 1 - 2 cannot be represented in type '{{uint32_t|unsigned int}}'
#endif
#ifdef SUB_I64
(void)(uint64_t(8000000000000000000ll) - uint64_t(9000000000000000000ll));
- // CHECK-SUB_I64: 8000000000000000000 - 9000000000000000000 cannot be represented in type 'unsigned {{long( long)?}}'
+ // CHECK-SUB_I64: 8000000000000000000 - 9000000000000000000 cannot be represented in type '{{uint64_t|unsigned long( long)?}}'
#endif
#ifdef SUB_I128
# else
puts("__int128 not supported\n");
# endif
- // CHECK-SUB_I128: {{0x40000000000000000000000000000000 - 0x80000000000000000000000000000000 cannot be represented in type 'unsigned __int128'|__int128 not supported}}
+ // CHECK-SUB_I128: {{0x40000000000000000000000000000000 - 0x80000000000000000000000000000000 cannot be represented in type '__uint128_t'|__int128 not supported}}
#endif
}
struct S0 l_19;
l_19.f2 = 419;
uint32_t l_4037 = 4294967295UL;
- l_19.f2 = g_463; //%self.expect("expr ((l_4037 % (-(g_463))) | l_19.f2)", substrs=['(unsigned int) $0 = 358717883'])
+ l_19.f2 = g_463; //%self.expect("expr ((l_4037 % (-(g_463))) | l_19.f2)", substrs=['(uint32_t) $0 = 358717883'])
}
int main()
{
__int128_t n = 1;
n = n + n;
return n; //%self.expect("p n", substrs=['(__int128_t) $0 = 2'])
- //%self.expect("p n + 6", substrs=['(__int128) $1 = 8'])
- //%self.expect("p n + n", substrs=['(__int128) $2 = 4'])
+ //%self.expect("p n + 6", substrs=['(__int128_t) $1 = 8'])
+ //%self.expect("p n + n", substrs=['(__int128_t) $2 = 4'])
}
projects / platform / upstream / llvm.git / commitdiff