Replace "inline" with OPUS_INLINE.

Newer versions of MSVC are unhappy with the strategy of the build
 environment redefining "inline" (even though they don't support the
 actual keyword). Instead we define OPUS_INLINE to the right thing
 in opus_defines.h.

This is the same approach we use for restrict.

1 files changed, 11 insertions, 11 deletions

diff --git a/celt/mathops.h b/celt/mathops.h
index 7e7d906c..a0525a96 100644
--- a/celt/mathops.h
+++ b/celt/mathops.h
@@ -44,7 +44,7 @@
 unsigned isqrt32(opus_uint32 _val);
 
 #ifndef OVERRIDE_CELT_MAXABS16
-static inline opus_val32 celt_maxabs16(const opus_val16 *x, int len)
+static OPUS_INLINE opus_val32 celt_maxabs16(const opus_val16 *x, int len)
 {
    int i;
    opus_val16 maxval = 0;
@@ -60,7 +60,7 @@ static inline opus_val32 celt_maxabs16(const opus_val16 *x, int len)
 
 #ifndef OVERRIDE_CELT_MAXABS32
 #ifdef FIXED_POINT
-static inline opus_val32 celt_maxabs32(const opus_val32 *x, int len)
+static OPUS_INLINE opus_val32 celt_maxabs32(const opus_val32 *x, int len)
 {
    int i;
    opus_val32 maxval = 0;
@@ -95,7 +95,7 @@ static inline opus_val32 celt_maxabs32(const opus_val32 *x, int len)
          denorm, +/- inf and NaN are *not* handled */
 
 /** Base-2 log approximation (log2(x)). */
-static inline float celt_log2(float x)
+static OPUS_INLINE float celt_log2(float x)
 {
    int integer;
    float frac;
@@ -113,7 +113,7 @@ static inline float celt_log2(float x)
 }
 
 /** Base-2 exponential approximation (2^x). */
-static inline float celt_exp2(float x)
+static OPUS_INLINE float celt_exp2(float x)
 {
    int integer;
    float frac;
@@ -145,7 +145,7 @@ static inline float celt_exp2(float x)
 
 #ifndef OVERRIDE_CELT_ILOG2
 /** Integer log in base2. Undefined for zero and negative numbers */
-static inline opus_int16 celt_ilog2(opus_int32 x)
+static OPUS_INLINE opus_int16 celt_ilog2(opus_int32 x)
 {
    celt_assert2(x>0, "celt_ilog2() only defined for strictly positive numbers");
    return EC_ILOG(x)-1;
@@ -154,7 +154,7 @@ static inline opus_int16 celt_ilog2(opus_int32 x)
 
 
 /** Integer log in base2. Defined for zero, but not for negative numbers */
-static inline opus_int16 celt_zlog2(opus_val32 x)
+static OPUS_INLINE opus_int16 celt_zlog2(opus_val32 x)
 {
    return x <= 0 ? 0 : celt_ilog2(x);
 }
@@ -166,7 +166,7 @@ opus_val32 celt_sqrt(opus_val32 x);
 opus_val16 celt_cos_norm(opus_val32 x);
 
 /** Base-2 logarithm approximation (log2(x)). (Q14 input, Q10 output) */
-static inline opus_val16 celt_log2(opus_val32 x)
+static OPUS_INLINE opus_val16 celt_log2(opus_val32 x)
 {
    int i;
    opus_val16 n, frac;
@@ -192,14 +192,14 @@ static inline opus_val16 celt_log2(opus_val32 x)
 #define D2 14819
 #define D3 10204
 
-static inline opus_val32 celt_exp2_frac(opus_val16 x)
+static OPUS_INLINE opus_val32 celt_exp2_frac(opus_val16 x)
 {
    opus_val16 frac;
    frac = SHL16(x, 4);
    return ADD16(D0, MULT16_16_Q15(frac, ADD16(D1, MULT16_16_Q15(frac, ADD16(D2 , MULT16_16_Q15(D3,frac))))));
 }
 /** Base-2 exponential approximation (2^x). (Q10 input, Q16 output) */
-static inline opus_val32 celt_exp2(opus_val16 x)
+static OPUS_INLINE opus_val32 celt_exp2(opus_val16 x)
 {
    int integer;
    opus_val16 frac;
@@ -225,7 +225,7 @@ opus_val32 frac_div32(opus_val32 a, opus_val32 b);
 
 /* Atan approximation using a 4th order polynomial. Input is in Q15 format
    and normalized by pi/4. Output is in Q15 format */
-static inline opus_val16 celt_atan01(opus_val16 x)
+static OPUS_INLINE opus_val16 celt_atan01(opus_val16 x)
 {
    return MULT16_16_P15(x, ADD32(M1, MULT16_16_P15(x, ADD32(M2, MULT16_16_P15(x, ADD32(M3, MULT16_16_P15(M4, x)))))));
 }
@@ -236,7 +236,7 @@ static inline opus_val16 celt_atan01(opus_val16 x)
 #undef M4
 
 /* atan2() approximation valid for positive input values */
-static inline opus_val16 celt_atan2p(opus_val16 y, opus_val16 x)
+static OPUS_INLINE opus_val16 celt_atan2p(opus_val16 y, opus_val16 x)
 {
    if (y < x)
    {