builtins: spell inline as __inline

__inline is a vendor specific spelling for inline.  clang and gcc treat it the
same as inline, and is available in MSVC 2013 which does not implement C99
(VS2015 supports the inline keyword though).  This will allow us to build the
builtins using MSVC.

llvm-svn: 249953

1 files changed, 11 insertions, 11 deletions

diff --git a/compiler-rt/lib/builtins/fp_lib.h b/compiler-rt/lib/builtins/fp_lib.h
index faebb99ecd5..223fb980aae 100644
--- a/compiler-rt/lib/builtins/fp_lib.h
+++ b/compiler-rt/lib/builtins/fp_lib.h
@@ -46,12 +46,12 @@ typedef float fp_t;
 #define REP_C UINT32_C
 #define significandBits 23
 
-static inline int rep_clz(rep_t a) {
+static __inline int rep_clz(rep_t a) {
     return __builtin_clz(a);
 }
 
 // 32x32 --> 64 bit multiply
-static inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
+static __inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
     const uint64_t product = (uint64_t)a*b;
     *hi = product >> 32;
     *lo = product;
@@ -66,7 +66,7 @@ typedef double fp_t;
 #define REP_C UINT64_C
 #define significandBits 52
 
-static inline int rep_clz(rep_t a) {
+static __inline int rep_clz(rep_t a) {
 #if defined __LP64__
     return __builtin_clzl(a);
 #else
@@ -83,7 +83,7 @@ static inline int rep_clz(rep_t a) {
 // 64x64 -> 128 wide multiply for platforms that don't have such an operation;
 // many 64-bit platforms have this operation, but they tend to have hardware
 // floating-point, so we don't bother with a special case for them here.
-static inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
+static __inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
     // Each of the component 32x32 -> 64 products
     const uint64_t plolo = loWord(a) * loWord(b);
     const uint64_t plohi = loWord(a) * hiWord(b);
@@ -112,7 +112,7 @@ typedef long double fp_t;
 // 128-bit integer, we let the constant be casted to 128-bit integer
 #define significandBits 112
 
-static inline int rep_clz(rep_t a) {
+static __inline int rep_clz(rep_t a) {
     const union
         {
              __uint128_t ll;
@@ -148,7 +148,7 @@ static inline int rep_clz(rep_t a) {
 // 128x128 -> 256 wide multiply for platforms that don't have such an operation;
 // many 64-bit platforms have this operation, but they tend to have hardware
 // floating-point, so we don't bother with a special case for them here.
-static inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
+static __inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
 
     const uint64_t product11 = Word_1(a) * Word_1(b);
     const uint64_t product12 = Word_1(a) * Word_2(b);
@@ -228,28 +228,28 @@ static inline void wideMultiply(rep_t a, rep_t b, rep_t *hi, rep_t *lo) {
 #define quietBit        (implicitBit >> 1)
 #define qnanRep         (exponentMask | quietBit)
 
-static inline rep_t toRep(fp_t x) {
+static __inline rep_t toRep(fp_t x) {
     const union { fp_t f; rep_t i; } rep = {.f = x};
     return rep.i;
 }
 
-static inline fp_t fromRep(rep_t x) {
+static __inline fp_t fromRep(rep_t x) {
     const union { fp_t f; rep_t i; } rep = {.i = x};
     return rep.f;
 }
 
-static inline int normalize(rep_t *significand) {
+static __inline int normalize(rep_t *significand) {
     const int shift = rep_clz(*significand) - rep_clz(implicitBit);
     *significand <<= shift;
     return 1 - shift;
 }
 
-static inline void wideLeftShift(rep_t *hi, rep_t *lo, int count) {
+static __inline void wideLeftShift(rep_t *hi, rep_t *lo, int count) {
     *hi = *hi << count | *lo >> (typeWidth - count);
     *lo = *lo << count;
 }
 
-static inline void wideRightShiftWithSticky(rep_t *hi, rep_t *lo, unsigned int count) {
+static __inline void wideRightShiftWithSticky(rep_t *hi, rep_t *lo, unsigned int count) {
     if (count < typeWidth) {
         const bool sticky = *lo << (typeWidth - count);
         *lo = *hi << (typeWidth - count) | *lo >> count | sticky;