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Replace uses of scm_t_int8, scm_t_uintmax, etc with stdint types

* libguile/bitvectors.c:
* libguile/bitvectors.h:
* libguile/bytevectors.c:
* libguile/bytevectors.h:
* libguile/chars.c:
* libguile/continuations.c:
* libguile/control.c:
* libguile/conv-integer.i.c:
* libguile/conv-uinteger.i.c:
* libguile/dynstack.c:
* libguile/dynstack.h:
* libguile/foreign.c:
* libguile/frames.c:
* libguile/frames.h:
* libguile/gc-inline.h:
* libguile/gc.h:
* libguile/gsubr.c:
* libguile/gsubr.h:
* libguile/hash.c:
* libguile/i18n.c:
* libguile/instructions.c:
* libguile/intrinsics.c:
* libguile/intrinsics.h:
* libguile/loader.c:
* libguile/loader.h:
* libguile/numbers.c:
* libguile/numbers.h:
* libguile/pairs.c:
* libguile/ports-internal.h:
* libguile/ports.c:
* libguile/ports.h:
* libguile/posix.c:
* libguile/print.c:
* libguile/print.h:
* libguile/programs.c:
* libguile/programs.h:
* libguile/r6rs-ports.c:
* libguile/random.c:
* libguile/random.h:
* libguile/scm.h:
* libguile/socket.c:
* libguile/srfi-4.c:
* libguile/srfi-4.h:
* libguile/stacks.c:
* libguile/stime.c:
* libguile/strings.c:
* libguile/struct.c:
* libguile/struct.h:
* libguile/symbols.c:
* libguile/threads.c:
* libguile/threads.h:
* libguile/uniform.c:
* libguile/vm-engine.c:
* libguile/vm.c:
* libguile/vm.h:
* libguile/vports.c:
* test-suite/standalone/test-conversion.c:
* test-suite/standalone/test-ffi-lib.c:
* test-suite/standalone/test-scm-take-u8vector.c:
* test-suite/standalone/test-srfi-4.c: Replace e.g. scm_t_uint8 with
  uint8_t.
This commit is contained in:
Andy Wingo 2018-06-21 08:39:03 +02:00
parent 5e5afde06f
commit 16879cabed
59 changed files with 924 additions and 924 deletions

View file

@ -85,8 +85,8 @@ scm_t_rng scm_the_rng;
typedef struct scm_t_i_rstate {
scm_t_rstate rstate;
scm_t_uint32 w;
scm_t_uint32 c;
uint32_t w;
uint32_t c;
} scm_t_i_rstate;
@ -96,12 +96,12 @@ typedef struct scm_t_i_rstate {
#define M_PI 3.14159265359
#endif
static scm_t_uint32
static uint32_t
scm_i_uniform32 (scm_t_rstate *state)
{
scm_t_i_rstate *istate = (scm_t_i_rstate*) state;
scm_t_uint64 x = (scm_t_uint64) A * istate->w + istate->c;
scm_t_uint32 w = x & 0xffffffffUL;
uint64_t x = (uint64_t) A * istate->w + istate->c;
uint32_t w = x & 0xffffffffUL;
istate->w = w;
istate->c = x >> 32L;
return w;
@ -111,8 +111,8 @@ static void
scm_i_init_rstate (scm_t_rstate *state, const char *seed, int n)
{
scm_t_i_rstate *istate = (scm_t_i_rstate*) state;
scm_t_uint32 w = 0L;
scm_t_uint32 c = 0L;
uint32_t w = 0L;
uint32_t c = 0L;
int i, m;
for (i = 0; i < n; ++i)
{
@ -145,7 +145,7 @@ scm_i_rstate_from_datum (scm_t_rstate *state, SCM value)
#define FUNC_NAME "scm_i_rstate_from_datum"
{
scm_t_i_rstate *istate = (scm_t_i_rstate*) state;
scm_t_uint32 w, c;
uint32_t w, c;
long length;
SCM_VALIDATE_LIST_COPYLEN (SCM_ARG1, value, length);
@ -253,8 +253,8 @@ scm_c_exp1 (scm_t_rstate *state)
unsigned char scm_masktab[256];
static inline scm_t_uint32
scm_i_mask32 (scm_t_uint32 m)
static inline uint32_t
scm_i_mask32 (uint32_t m)
{
return (m < 0x100
? scm_masktab[m]
@ -262,28 +262,28 @@ scm_i_mask32 (scm_t_uint32 m)
? scm_masktab[m >> 8] << 8 | 0xff
: (m < 0x1000000
? scm_masktab[m >> 16] << 16 | 0xffff
: ((scm_t_uint32) scm_masktab[m >> 24]) << 24 | 0xffffff)));
: ((uint32_t) scm_masktab[m >> 24]) << 24 | 0xffffff)));
}
scm_t_uint32
scm_c_random (scm_t_rstate *state, scm_t_uint32 m)
uint32_t
scm_c_random (scm_t_rstate *state, uint32_t m)
{
scm_t_uint32 r, mask = scm_i_mask32 (m);
uint32_t r, mask = scm_i_mask32 (m);
while ((r = state->rng->random_bits (state) & mask) >= m);
return r;
}
scm_t_uint64
scm_c_random64 (scm_t_rstate *state, scm_t_uint64 m)
uint64_t
scm_c_random64 (scm_t_rstate *state, uint64_t m)
{
scm_t_uint64 r;
scm_t_uint32 mask;
uint64_t r;
uint32_t mask;
if (m <= UINT32_MAX)
return scm_c_random (state, (scm_t_uint32) m);
return scm_c_random (state, (uint32_t) m);
mask = scm_i_mask32 (m >> 32);
while ((r = ((scm_t_uint64) (state->rng->random_bits (state) & mask) << 32)
while ((r = ((uint64_t) (state->rng->random_bits (state) & mask) << 32)
| state->rng->random_bits (state)) >= m)
;
return r;
@ -309,24 +309,24 @@ scm_c_random_bignum (scm_t_rstate *state, SCM m)
{
SCM result = scm_i_mkbig ();
const size_t m_bits = mpz_sizeinbase (SCM_I_BIG_MPZ (m), 2);
/* how many bits would only partially fill the last scm_t_uint32? */
const size_t end_bits = m_bits % (sizeof (scm_t_uint32) * SCM_CHAR_BIT);
scm_t_uint32 *random_chunks = NULL;
const scm_t_uint32 num_full_chunks =
m_bits / (sizeof (scm_t_uint32) * SCM_CHAR_BIT);
const scm_t_uint32 num_chunks = num_full_chunks + ((end_bits) ? 1 : 0);
/* how many bits would only partially fill the last uint32_t? */
const size_t end_bits = m_bits % (sizeof (uint32_t) * SCM_CHAR_BIT);
uint32_t *random_chunks = NULL;
const uint32_t num_full_chunks =
m_bits / (sizeof (uint32_t) * SCM_CHAR_BIT);
const uint32_t num_chunks = num_full_chunks + ((end_bits) ? 1 : 0);
/* we know the result will be this big */
mpz_realloc2 (SCM_I_BIG_MPZ (result), m_bits);
random_chunks =
(scm_t_uint32 *) scm_gc_calloc (num_chunks * sizeof (scm_t_uint32),
(uint32_t *) scm_gc_calloc (num_chunks * sizeof (uint32_t),
"random bignum chunks");
do
{
scm_t_uint32 *current_chunk = random_chunks + (num_chunks - 1);
scm_t_uint32 chunks_left = num_chunks;
uint32_t *current_chunk = random_chunks + (num_chunks - 1);
uint32_t chunks_left = num_chunks;
mpz_set_ui (SCM_I_BIG_MPZ (result), 0);
@ -334,24 +334,24 @@ scm_c_random_bignum (scm_t_rstate *state, SCM m)
{
/* generate a mask with ones in the end_bits position, i.e. if
end_bits is 3, then we'd have a mask of ...0000000111 */
const scm_t_uint32 rndbits = state->rng->random_bits (state);
int rshift = (sizeof (scm_t_uint32) * SCM_CHAR_BIT) - end_bits;
scm_t_uint32 mask = ((scm_t_uint32)-1) >> rshift;
scm_t_uint32 highest_bits = rndbits & mask;
const uint32_t rndbits = state->rng->random_bits (state);
int rshift = (sizeof (uint32_t) * SCM_CHAR_BIT) - end_bits;
uint32_t mask = ((uint32_t)-1) >> rshift;
uint32_t highest_bits = rndbits & mask;
*current_chunk-- = highest_bits;
chunks_left--;
}
while (chunks_left)
{
/* now fill in the remaining scm_t_uint32 sized chunks */
/* now fill in the remaining uint32_t sized chunks */
*current_chunk-- = state->rng->random_bits (state);
chunks_left--;
}
mpz_import (SCM_I_BIG_MPZ (result),
num_chunks,
-1,
sizeof (scm_t_uint32),
sizeof (uint32_t),
0,
0,
random_chunks);
@ -359,7 +359,7 @@ scm_c_random_bignum (scm_t_rstate *state, SCM m)
all bits in order not to get a distorted distribution) */
} while (mpz_cmp (SCM_I_BIG_MPZ (result), SCM_I_BIG_MPZ (m)) >= 0);
scm_gc_free (random_chunks,
num_chunks * sizeof (scm_t_uint32),
num_chunks * sizeof (uint32_t),
"random bignum chunks");
return scm_i_normbig (result);
}
@ -408,10 +408,10 @@ SCM_DEFINE (scm_random, "random", 1, 1, 0,
SCM_ASSERT_RANGE (1, n, SCM_I_INUM (n) > 0);
#if SCM_SIZEOF_UINTPTR_T <= 4
return scm_from_uint32 (scm_c_random (SCM_RSTATE (state),
(scm_t_uint32) m));
(uint32_t) m));
#elif SCM_SIZEOF_UINTPTR_T <= 8
return scm_from_uint64 (scm_c_random64 (SCM_RSTATE (state),
(scm_t_uint64) m));
(uint64_t) m));
#else
#error "Cannot deal with this platform's scm_t_bits size"
#endif