// for_each(V.begin(), B.end(), deleter<Interval>);
//
template <class T>
-static inline void deleter(T *Ptr) {
+inline void deleter(T *Ptr) {
delete Ptr;
}
/// array_pod_sort_comparator - This is helper function for array_pod_sort,
/// which just uses operator< on T.
template<typename T>
-static inline int array_pod_sort_comparator(const void *P1, const void *P2) {
+inline int array_pod_sort_comparator(const void *P1, const void *P2) {
if (*reinterpret_cast<const T*>(P1) < *reinterpret_cast<const T*>(P2))
return -1;
if (*reinterpret_cast<const T*>(P2) < *reinterpret_cast<const T*>(P1))
/// get_array_pad_sort_comparator - This is an internal helper function used to
/// get type deduction of T right.
template<typename T>
-static int (*get_array_pad_sort_comparator(const T &))
+inline int (*get_array_pad_sort_comparator(const T &))
(const void*, const void*) {
return array_pod_sort_comparator<T>;
}
/// NOTE: If qsort_r were portable, we could allow a custom comparator and
/// default to std::less.
template<class IteratorTy>
-static inline void array_pod_sort(IteratorTy Start, IteratorTy End) {
+inline void array_pod_sort(IteratorTy Start, IteratorTy End) {
// Don't dereference start iterator of empty sequence.
if (Start == End) return;
qsort(&*Start, End-Start, sizeof(*Start),
}
template<class IteratorTy>
-static inline void array_pod_sort(IteratorTy Start, IteratorTy End,
+inline void array_pod_sort(IteratorTy Start, IteratorTy End,
int (*Compare)(const void*, const void*)) {
// Don't dereference start iterator of empty sequence.
if (Start == End) return;
EXTERN_TEMPLATE_INSTANTIATION(class DomTreeNodeBase<MachineBasicBlock>);
template<class NodeT>
-static raw_ostream &operator<<(raw_ostream &o,
+inline raw_ostream &operator<<(raw_ostream &o,
const DomTreeNodeBase<NodeT> *Node) {
if (Node->getBlock())
WriteAsOperand(o, Node->getBlock(), false);
}
template<class NodeT>
-static void PrintDomTree(const DomTreeNodeBase<NodeT> *N, raw_ostream &o,
+inline void PrintDomTree(const DomTreeNodeBase<NodeT> *N, raw_ostream &o,
unsigned Lev) {
o.indent(2*Lev) << "[" << Lev << "] " << N;
for (typename DomTreeNodeBase<NodeT>::const_iterator I = N->begin(),
namespace llvm {
template<typename T>
-static void RemoveFromVector(std::vector<T*> &V, T *N) {
+inline void RemoveFromVector(std::vector<T*> &V, T *N) {
typename std::vector<T*>::iterator I = std::find(V.begin(), V.end(), N);
assert(I != V.end() && "N is not in this list!");
V.erase(I);
/// isBitcodeWrapper - Return true if the given bytes are the magic bytes
/// for an LLVM IR bitcode wrapper.
///
- static inline bool isBitcodeWrapper(const unsigned char *BufPtr,
- const unsigned char *BufEnd) {
+ inline bool isBitcodeWrapper(const unsigned char *BufPtr,
+ const unsigned char *BufEnd) {
// See if you can find the hidden message in the magic bytes :-).
// (Hint: it's a little-endian encoding.)
return BufPtr != BufEnd &&
/// isRawBitcode - Return true if the given bytes are the magic bytes for
/// raw LLVM IR bitcode (without a wrapper).
///
- static inline bool isRawBitcode(const unsigned char *BufPtr,
- const unsigned char *BufEnd) {
+ inline bool isRawBitcode(const unsigned char *BufPtr,
+ const unsigned char *BufEnd) {
// These bytes sort of have a hidden message, but it's not in
// little-endian this time, and it's a little redundant.
return BufPtr != BufEnd &&
/// isBitcode - Return true if the given bytes are the magic bytes for
/// LLVM IR bitcode, either with or without a wrapper.
///
- static bool inline isBitcode(const unsigned char *BufPtr,
- const unsigned char *BufEnd) {
+ inline bool isBitcode(const unsigned char *BufPtr,
+ const unsigned char *BufEnd) {
return isBitcodeWrapper(BufPtr, BufEnd) ||
isRawBitcode(BufPtr, BufEnd);
}
/// BC file.
/// If 'VerifyBufferSize' is true, check that the buffer is large enough to
/// contain the whole bitcode file.
- static inline bool SkipBitcodeWrapperHeader(const unsigned char *&BufPtr,
- const unsigned char *&BufEnd,
- bool VerifyBufferSize) {
+ inline bool SkipBitcodeWrapperHeader(const unsigned char *&BufPtr,
+ const unsigned char *&BufEnd,
+ bool VerifyBufferSize) {
enum {
KnownHeaderSize = 4*4, // Size of header we read.
OffsetField = 2*4, // Offset in bytes to Offset field.
/// getBundleStart - Returns the first instruction in the bundle containing MI.
///
-static inline MachineInstr *getBundleStart(MachineInstr *MI) {
+inline MachineInstr *getBundleStart(MachineInstr *MI) {
MachineBasicBlock::instr_iterator I = MI;
while (I->isInsideBundle())
--I;
return I;
}
-static inline const MachineInstr *getBundleStart(const MachineInstr *MI) {
+inline const MachineInstr *getBundleStart(const MachineInstr *MI) {
MachineBasicBlock::const_instr_iterator I = MI;
while (I->isInsideBundle())
--I;
// checkGEPType - Simple wrapper function to give a better assertion failure
// message on bad indexes for a gep instruction.
//
-static inline Type *checkGEPType(Type *Ty) {
+inline Type *checkGEPType(Type *Ty) {
assert(Ty && "Invalid GetElementPtrInst indices for type!");
return Ty;
}
}
};
-static bool operator ==(const DataRefImpl &a, const DataRefImpl &b) {
+inline bool operator ==(const DataRefImpl &a, const DataRefImpl &b) {
// Check bitwise identical. This is the only legal way to compare a union w/o
// knowing which member is in use.
return std::memcmp(&a, &b, sizeof(DataRefImpl)) == 0;
}
-static bool operator <(const DataRefImpl &a, const DataRefImpl &b) {
+inline bool operator <(const DataRefImpl &a, const DataRefImpl &b) {
// Check bitwise identical. This is the only legal way to compare a union w/o
// knowing which member is in use.
return std::memcmp(&a, &b, sizeof(DataRefImpl)) < 0;
/// class besides some cosmetic cleanliness. Example usage:
/// alignOf<int>() returns the alignment of an int.
template <typename T>
-static inline unsigned alignOf() { return AlignOf<T>::Alignment; }
+inline unsigned alignOf() { return AlignOf<T>::Alignment; }
/// \brief Helper for building an aligned character array type.
namespace endian {
template<typename value_type, alignment align>
- static value_type read_le(const void *memory) {
+ inline value_type read_le(const void *memory) {
value_type t =
reinterpret_cast<const detail::alignment_access_helper
<value_type, align> *>(memory)->val;
}
template<typename value_type, alignment align>
- static void write_le(void *memory, value_type value) {
+ inline void write_le(void *memory, value_type value) {
if (sys::isBigEndianHost())
value = sys::SwapByteOrder(value);
reinterpret_cast<detail::alignment_access_helper<value_type, align> *>
}
template<typename value_type, alignment align>
- static value_type read_be(const void *memory) {
+ inline value_type read_be(const void *memory) {
value_type t =
reinterpret_cast<const detail::alignment_access_helper
<value_type, align> *>(memory)->val;
}
template<typename value_type, alignment align>
- static void write_be(void *memory, value_type value) {
+ inline void write_be(void *memory, value_type value) {
if (sys::isLittleEndianHost())
value = sys::SwapByteOrder(value);
reinterpret_cast<detail::alignment_access_helper<value_type, align> *>
/// MinAlign - A and B are either alignments or offsets. Return the minimum
/// alignment that may be assumed after adding the two together.
-static inline uint64_t MinAlign(uint64_t A, uint64_t B) {
+inline uint64_t MinAlign(uint64_t A, uint64_t B) {
// The largest power of 2 that divides both A and B.
return (A | B) & -(A | B);
}
/// NextPowerOf2 - Returns the next power of two (in 64-bits)
/// that is strictly greater than A. Returns zero on overflow.
-static inline uint64_t NextPowerOf2(uint64_t A) {
+inline uint64_t NextPowerOf2(uint64_t A) {
A |= (A >> 1);
A |= (A >> 2);
A |= (A >> 4);
// getBaseOpcodeFor - This function returns the "base" X86 opcode for the
// specified machine instruction.
//
- static inline unsigned char getBaseOpcodeFor(uint64_t TSFlags) {
+ inline unsigned char getBaseOpcodeFor(uint64_t TSFlags) {
return TSFlags >> X86II::OpcodeShift;
}
- static inline bool hasImm(uint64_t TSFlags) {
+ inline bool hasImm(uint64_t TSFlags) {
return (TSFlags & X86II::ImmMask) != 0;
}
/// getSizeOfImm - Decode the "size of immediate" field from the TSFlags field
/// of the specified instruction.
- static inline unsigned getSizeOfImm(uint64_t TSFlags) {
+ inline unsigned getSizeOfImm(uint64_t TSFlags) {
switch (TSFlags & X86II::ImmMask) {
default: llvm_unreachable("Unknown immediate size");
case X86II::Imm8:
/// isImmPCRel - Return true if the immediate of the specified instruction's
/// TSFlags indicates that it is pc relative.
- static inline unsigned isImmPCRel(uint64_t TSFlags) {
+ inline unsigned isImmPCRel(uint64_t TSFlags) {
switch (TSFlags & X86II::ImmMask) {
default: llvm_unreachable("Unknown immediate size");
case X86II::Imm8PCRel:
/// is duplicated in the MCInst (e.g. "EAX = addl EAX, [mem]") it is only
/// counted as one operand.
///
- static inline int getMemoryOperandNo(uint64_t TSFlags, unsigned Opcode) {
+ inline int getMemoryOperandNo(uint64_t TSFlags, unsigned Opcode) {
switch (TSFlags & X86II::FormMask) {
case X86II::MRMInitReg:
// FIXME: Remove this form.
/// isX86_64ExtendedReg - Is the MachineOperand a x86-64 extended (r8 or
/// higher) register? e.g. r8, xmm8, xmm13, etc.
- static inline bool isX86_64ExtendedReg(unsigned RegNo) {
+ inline bool isX86_64ExtendedReg(unsigned RegNo) {
switch (RegNo) {
default: break;
case X86::R8: case X86::R9: case X86::R10: case X86::R11:
return false;
}
- static inline bool isX86_64NonExtLowByteReg(unsigned reg) {
+ inline bool isX86_64NonExtLowByteReg(unsigned reg) {
return (reg == X86::SPL || reg == X86::BPL ||
reg == X86::SIL || reg == X86::DIL);
}