n                 215 ext/auxsys/auxsyslib.c        ScmObj n = Scm_MakeFlonum(samples[i]);
n                 216 ext/auxsys/auxsyslib.c        SCM_APPEND1(h, t, n);
n                 465 ext/auxsys/auxsyslib.c     int i, n = getgroups(size, pglist);
n                 466 ext/auxsys/auxsyslib.c     if (n >= 0) {
n                 468 ext/auxsys/auxsyslib.c       for (i=0; i<n; i++) SCM_APPEND1(head, tail, Scm_MakeInteger(pglist[i]));
n                 131 ext/binary/binary.c #define CSWAP(buf, tmp, n, m) (tmp=buf[n], buf[n]=buf[m], buf[m]=tmp)
n                  52 ext/charconv/jconv.c #define INCHK(n)   do{if (inroom < (n)) return INPUT_NOT_ENOUGH;}while(0)
n                  53 ext/charconv/jconv.c #define OUTCHK(n)  do{if (outroom < (n)) return OUTPUT_NOT_ENOUGH;}while(0)
n                  55 ext/charconv/jconv.c #define ERRP(n)    ((n)==INPUT_NOT_ENOUGH||(n)==OUTPUT_NOT_ENOUGH||(n)==ILLEGAL_SEQUENCE)
n                  69 ext/dbm/ndbm.c     ScmNdbm *n = SCM_NDBM(obj);
n                  70 ext/dbm/ndbm.c     if (n->dbf) { dbm_close(n->dbf); n->dbf = NULL; }
n                  94 ext/digest/sha.c #define ROTL(n,X) ( (X << n) | (X >> (32-n)) )
n                  99 ext/fcntl/fcntl.c #define FLAG_NAME(n) case n: return #n
n                 138 ext/mt-random/mt-lib.c   ScmObj n;
n                 144 ext/mt-random/mt-lib.c   n = (n_scm);
n                 148 ext/mt-random/mt-lib.c SCM_RESULT = Scm_MTGenrandInt(mt, n);
n                 186 ext/mt-random/mt-random.c static inline int xlog2(unsigned long n)
n                 198 ext/mt-random/mt-random.c     if (n < m) {
n                 202 ext/mt-random/mt-random.c             if (n == m) return e;
n                 203 ext/mt-random/mt-random.c         } while (e >= 0 && n < m);
n                 204 ext/mt-random/mt-random.c     } else if (n > m) {
n                 208 ext/mt-random/mt-random.c             if (n == m) return e;
n                 209 ext/mt-random/mt-random.c         } while (e < MAX_BIT && n > m);
n                 220 ext/mt-random/mt-random.c static ScmObj genrand_int_small(ScmMersenneTwister *mt, unsigned long n)
n                 224 ext/mt-random/mt-random.c     if ((e = xlog2(n)) == 0) {
n                 232 ext/mt-random/mt-random.c         double q = floor((double)0xffffffff / (double)n);
n                 233 ext/mt-random/mt-random.c         double qn = q * n;
n                 241 ext/mt-random/mt-random.c ScmObj Scm_MTGenrandInt(ScmMersenneTwister *mt, ScmObj n)
n                 243 ext/mt-random/mt-random.c     if (SCM_INTP(n)) {
n                 244 ext/mt-random/mt-random.c         long m = SCM_INT_VALUE(n);
n                 249 ext/mt-random/mt-random.c     if (SCM_BIGNUMP(n)) {
n                 250 ext/mt-random/mt-random.c         if (SCM_BIGNUM_SIGN(n) <= 0) goto err;
n                 251 ext/mt-random/mt-random.c         if (SCM_BIGNUM_SIZE(n) == 1) {
n                 252 ext/mt-random/mt-random.c             return genrand_int_small(mt, SCM_BIGNUM(n)->values[0]);
n                 254 ext/mt-random/mt-random.c         if (SCM_BIGNUM_SIZE(n) == 2
n                 255 ext/mt-random/mt-random.c             && SCM_BIGNUM(n)->values[0] == 0
n                 256 ext/mt-random/mt-random.c             && SCM_BIGNUM(n)->values[1] == 1) {
n                 262 ext/mt-random/mt-random.c     Scm_Error("bad type of argument for n: positive integer up to 2^32 is required, but got %S", n);
n                  75 ext/mt-random/mt-random.h extern ScmObj        Scm_MTGenrandInt(ScmMersenneTwister *mt, ScmObj n);
n                9730 ext/uvector/uvector.c                 unsigned short n;
n                9734 ext/uvector/uvector.c                 d.n = ((unsigned short*)v->elements)[i];
n                9735 ext/uvector/uvector.c                 swapb16(&d.n);
n                9741 ext/uvector/uvector.c                 ScmUInt32 n;
n                9745 ext/uvector/uvector.c                 d.n = ((ScmUInt32*)v->elements)[i];
n                9746 ext/uvector/uvector.c                 swapb32(&d.n);
n                9752 ext/uvector/uvector.c                 ScmUInt64 n;
n                9756 ext/uvector/uvector.c                 d.n = ((ScmUInt64*)v->elements)[i];
n                9757 ext/uvector/uvector.c                 swapb64(&d.n);
n                 130 ext/vport/vport.c         int n, i;
n                 138 ext/vport/vport.c         n = SCM_CHAR_NFOLLOWS(p->scratch[0]);
n                 139 ext/vport/vport.c         for (i=0; i<n; i++) {
n                 246 ext/vport/vport.c             int i, n=SCM_CHAR_NBYTES(c);
n                 248 ext/vport/vport.c             for (i=0; i<n; i++) {
n                  59 gc/allchblk.c    static GC_bool GC_enough_large_bytes_left(bytes,n)
n                  61 gc/allchblk.c    int n;
n                  64 gc/allchblk.c      for (i = N_HBLK_FLS; i >= n; --i) {
n                  71 gc/allchblk.c  # define INCR_FREE_BYTES(n, b) GC_free_bytes[n] += (b);
n                  77 gc/allchblk.c  # define INCR_FREE_BYTES(n, b)
n                 258 gc/allchblk.c  void GC_remove_from_fl(hhdr, n)
n                 260 gc/allchblk.c  int n;
n                 267 gc/allchblk.c        if (FL_UNKNOWN == n) {
n                 270 gc/allchblk.c  	  index = n;
n                 275 gc/allchblk.c  	  if (FL_UNKNOWN == n) {
n                 278 gc/allchblk.c  	    index = n;
n                 500 gc/allchblk.c  void GC_split_block(h, hhdr, n, nhdr, index)
n                 503 gc/allchblk.c  struct hblk *n;
n                 508 gc/allchblk.c      word h_size = (word)n - (word)h;
n                 518 gc/allchblk.c  	HDR(prev) -> hb_next = n;
n                 520 gc/allchblk.c          GC_hblkfreelist[index] = n;
n                 523 gc/allchblk.c  	HDR(next) -> hb_prev = n;
n                 572 gc/allchblk.c  GC_allochblk_nth(sz, kind, flags, n)
n                 576 gc/allchblk.c  int n;
n                 588 gc/allchblk.c  	hbp = GC_hblkfreelist[n];
n                 606 gc/allchblk.c  		    if (!GC_enough_large_bytes_left(GC_large_allocd_bytes, n)) {
n                 664 gc/allchblk.c  		      GC_split_block(hbp, hhdr, thishbp, thishdr, n);
n                 705 gc/allchblk.c  		      GC_remove_from_fl(hhdr, n);
n                 720 gc/allchblk.c  			return GC_allochblk_nth(sz, kind, flags, n);
n                 736 gc/allchblk.c  		hbp = GC_get_first_part(hbp, hhdr, size_needed, n);
n                 419 gc/alloc.c     void GC_collect_a_little_inner(n)
n                 420 gc/alloc.c     int n;
n                 426 gc/alloc.c         	for (i = GC_deficit; i < GC_RATE*n; i++) {
n                 449 gc/alloc.c         	if (GC_deficit > 0) GC_deficit -= GC_RATE*n;
n                 882 gc/alloc.c         void GC_set_max_heap_size(GC_word n)
n                 884 gc/alloc.c         void GC_set_max_heap_size(n)
n                 885 gc/alloc.c         GC_word n;
n                 888 gc/alloc.c         GC_max_heapsize = n;
n                 900 gc/alloc.c     GC_bool GC_expand_hp_inner(n)
n                 901 gc/alloc.c     word n;
n                 908 gc/alloc.c         if (n < MINHINCR) n = MINHINCR;
n                 909 gc/alloc.c         bytes = n * HBLKSIZE;
n                 104 gc/cord/cordbscs.c void CORD_dump_inner(CORD x, unsigned n)
n                 108 gc/cord/cordbscs.c     for (i = 0; i < (size_t)n; i++) {
n                 125 gc/cord/cordbscs.c         CORD_dump_inner(conc -> left, n+1);
n                 126 gc/cord/cordbscs.c         CORD_dump_inner(conc -> right, n+1);
n                 342 gc/cord/cordbscs.c CORD CORD_substr_closure(CORD x, size_t i, size_t n, CORD_fn f)
n                 350 gc/cord/cordbscs.c     result = CORD_from_fn(f, (void *)sa, n);
n                 361 gc/cord/cordbscs.c CORD CORD_substr_checked(CORD x, size_t i, size_t n)
n                 364 gc/cord/cordbscs.c         if (n > SUBSTR_LIMIT) {
n                 365 gc/cord/cordbscs.c             return(CORD_substr_closure(x, i, n, CORD_index_access_fn));
n                 367 gc/cord/cordbscs.c             register char * result = GC_MALLOC_ATOMIC(n+1);
n                 370 gc/cord/cordbscs.c             strncpy(result, x+i, n);
n                 371 gc/cord/cordbscs.c             result[n] = '\0';
n                 383 gc/cord/cordbscs.c     	    if (n == right_len) return(conc -> right);
n                 384 gc/cord/cordbscs.c     	    return(CORD_substr_checked(conc -> right, i - left_len, n));
n                 385 gc/cord/cordbscs.c     	} else if (i+n <= left_len) {
n                 386 gc/cord/cordbscs.c     	    if (n == left_len) return(conc -> left);
n                 387 gc/cord/cordbscs.c     	    return(CORD_substr_checked(conc -> left, i, n));
n                 399 gc/cord/cordbscs.c     	    if (i + n == right_len + left_len) {
n                 403 gc/cord/cordbscs.c     	    				          n - left_part_len);
n                 408 gc/cord/cordbscs.c         if (n > SUBSTR_LIMIT) {
n                 417 gc/cord/cordbscs.c             				   n, f -> fn));
n                 419 gc/cord/cordbscs.c                 return(CORD_substr_closure(x, i, n, CORD_apply_access_fn));
n                 428 gc/cord/cordbscs.c             register int lim = i + n;
n                 433 gc/cord/cordbscs.c             	    return(CORD_substr_closure(x, i, n, CORD_apply_access_fn));
n                 438 gc/cord/cordbscs.c             result = GC_MALLOC_ATOMIC(n+1);
n                 446 gc/cord/cordbscs.c CORD CORD_substr(CORD x, size_t i, size_t n)
n                 450 gc/cord/cordbscs.c     if (i >= len || n <= 0) return(0);
n                 453 gc/cord/cordbscs.c     if (i + n > len) n = len - i;
n                 459 gc/cord/cordbscs.c     return(CORD_substr_checked(x, i, n));
n                 496 gc/cord/cordxtra.c # define MOD_CACHE_SZ(n) ((n) & (CACHE_SZ - 1))
n                 497 gc/cord/cordxtra.c # define DIV_CACHE_SZ(n) ((n) >> LOG_CACHE_SZ)
n                 498 gc/cord/cordxtra.c # define MOD_LINE_SZ(n) ((n) & (LINE_SZ - 1))
n                 499 gc/cord/cordxtra.c # define DIV_LINE_SZ(n) ((n) >> LOG_LINE_SZ)
n                 500 gc/cord/cordxtra.c # define LINE_START(n) ((n) & ~(LINE_SZ - 1))
n                  99 gc/include/cord.h CORD CORD_substr(CORD x, size_t i, size_t n);
n                 209 gc/include/cord.h CORD CORD_catn(int n, /* CORD */ ...);
n                 339 gc/include/gc.h GC_API void GC_set_max_heap_size GC_PROTO((GC_word n));
n                 371 gc/include/gc.h GC_API void GC_register_displacement GC_PROTO((GC_word n));
n                 375 gc/include/gc.h GC_API void GC_debug_register_displacement GC_PROTO((GC_word n));
n                 579 gc/include/gc.h #   define GC_REGISTER_DISPLACEMENT(n) GC_debug_register_displacement(n)
n                 601 gc/include/gc.h #   define GC_REGISTER_DISPLACEMENT(n) GC_register_displacement(n)
n                 820 gc/include/gc.h #   define GC_PTR_ADD3(x, n, type_of_result) \
n                 821 gc/include/gc.h 	((type_of_result)GC_same_obj((x)+(n), (x)))
n                 822 gc/include/gc.h #   define GC_PRE_INCR3(x, n, type_of_result) \
n                 823 gc/include/gc.h 	((type_of_result)GC_pre_incr(&(x), (n)*sizeof(*x))
n                 827 gc/include/gc.h #       define GC_PTR_ADD(x, n) \
n                 828 gc/include/gc.h 	    GC_PTR_ADD3(x, n, typeof(x))
n                 829 gc/include/gc.h #       define GC_PRE_INCR(x, n) \
n                 830 gc/include/gc.h 	    GC_PRE_INCR3(x, n, typeof(x))
n                 831 gc/include/gc.h #       define GC_POST_INCR(x, n) \
n                 838 gc/include/gc.h #   	define GC_PTR_ADD(x, n) ((x)+(n))
n                 841 gc/include/gc.h #   define GC_PTR_ADD3(x, n, type_of_result) ((x)+(n))
n                 842 gc/include/gc.h #   define GC_PTR_ADD(x, n) ((x)+(n))
n                 843 gc/include/gc.h #   define GC_PRE_INCR3(x, n, type_of_result) ((x) += (n))
n                 844 gc/include/gc.h #   define GC_PRE_INCR(x, n) ((x) += (n))
n                 845 gc/include/gc.h #   define GC_POST_INCR2(x, n, type_of_result) ((x)++)
n                 846 gc/include/gc.h #   define GC_POST_INCR(x, n) ((x)++)
n                  54 gc/include/gc_alloc.h     static T *allocate(size_t n)
n                  55 gc/include/gc_alloc.h                 { return 0 == n? 0 : (T*) alloc::allocate(n * sizeof (T)); }
n                  58 gc/include/gc_alloc.h     static void deallocate(T *p, size_t n)
n                  59 gc/include/gc_alloc.h                 { if (0 != n) alloc::deallocate(p, n * sizeof (T)); }
n                 101 gc/include/gc_alloc.h inline size_t GC_round_up(size_t n)
n                 103 gc/include/gc_alloc.h     return ((n + GC_byte_alignment)/GC_byte_alignment)*GC_word_alignment;
n                 107 gc/include/gc_alloc.h inline size_t GC_round_up_uncollectable(size_t n)
n                 109 gc/include/gc_alloc.h     return ((n + GC_byte_alignment - 1)/GC_byte_alignment)*GC_word_alignment;
n                 176 gc/include/gc_alloc.h      	static void * allocate(size_t n)
n                 178 gc/include/gc_alloc.h 	    size_t nwords = GC_round_up(n);
n                 182 gc/include/gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc(n);
n                 191 gc/include/gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 193 gc/include/gc_alloc.h 	    size_t nwords = GC_round_up(n);
n                 197 gc/include/gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_atomic(n);
n                 206 gc/include/gc_alloc.h 	static void deallocate(void *p, size_t n)
n                 208 gc/include/gc_alloc.h             size_t nwords = GC_round_up(n);
n                 211 gc/include/gc_alloc.h 	    if (n > GC_max_fast_bytes)  {
n                 222 gc/include/gc_alloc.h 	static void ptr_free_deallocate(void *p, size_t n)
n                 224 gc/include/gc_alloc.h             size_t nwords = GC_round_up(n);
n                 227 gc/include/gc_alloc.h 	    if (n > GC_max_fast_bytes) {
n                 244 gc/include/gc_alloc.h      	static void * allocate(size_t n)
n                 246 gc/include/gc_alloc.h 	    size_t nwords = GC_round_up_uncollectable(n);
n                 250 gc/include/gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_uncollectable(n);
n                 259 gc/include/gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 261 gc/include/gc_alloc.h 	    size_t nwords = GC_round_up_uncollectable(n);
n                 265 gc/include/gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_atomic_uncollectable(n);
n                 274 gc/include/gc_alloc.h 	static void deallocate(void *p, size_t n)
n                 276 gc/include/gc_alloc.h             size_t nwords = GC_round_up_uncollectable(n);
n                 279 gc/include/gc_alloc.h 	    if (n > GC_max_fast_bytes)  {
n                 288 gc/include/gc_alloc.h 	static void ptr_free_deallocate(void *p, size_t n)
n                 290 gc/include/gc_alloc.h             size_t nwords = GC_round_up_uncollectable(n);
n                 293 gc/include/gc_alloc.h 	    if (n > GC_max_fast_bytes) {
n                 309 gc/include/gc_alloc.h      	static void * allocate(size_t n) { return GC_malloc(n); }
n                 310 gc/include/gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 311 gc/include/gc_alloc.h 		{ return GC_malloc_atomic(n); }
n                 321 gc/include/gc_alloc.h      	static void * allocate(size_t n) { return GC_malloc_uncollectable(n); }
n                 322 gc/include/gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 323 gc/include/gc_alloc.h 		{ return GC_malloc_atomic_uncollectable(n); }
n                 340 gc/include/gc_alloc.h     static T *allocate(size_t n) \
n                 341 gc/include/gc_alloc.h 	{ return 0 == n? 0 : \
n                 342 gc/include/gc_alloc.h 			 (T*) alloc::ptr_free_allocate(n * sizeof (T)); } \
n                 345 gc/include/gc_alloc.h     static void deallocate(T *p, size_t n) \
n                 346 gc/include/gc_alloc.h 	{ if (0 != n) alloc::ptr_free_deallocate(p, n * sizeof (T)); } \
n                  82 gc/include/gc_allocator.h inline void * GC_selective_alloc(size_t n, GC_Tp) {
n                  83 gc/include/gc_allocator.h     return GC_MALLOC(n);
n                  87 gc/include/gc_allocator.h inline void * GC_selective_alloc<GC_true_type>(size_t n, GC_true_type) {
n                  88 gc/include/gc_allocator.h     return GC_MALLOC_ATOMIC(n);
n                  45 gc/include/gc_inl.h # define GC_MALLOC_WORDS(result,n) \
n                  51 gc/include/gc_inl.h     opp = &(GC_objfreelist[n]);	\
n                  55 gc/include/gc_inl.h         (result) = GC_generic_malloc_words_small((n), NORMAL);	\
n                  59 gc/include/gc_inl.h         GC_words_allocd += (n);	\
n                  67 gc/include/gc_inl.h # define GC_MALLOC_ATOMIC_WORDS(result,n) \
n                  73 gc/include/gc_inl.h     opp = &(GC_aobjfreelist[n]);	\
n                  77 gc/include/gc_inl.h         (result) = GC_generic_malloc_words_small((n), PTRFREE);	\
n                  81 gc/include/gc_inl.h         GC_words_allocd += (n);	\
n                 100 gc/include/gc_typed.h #   define GC_CALLOC_EXPLICITLY_TYPED(n, bytes, d) GC_MALLOC(n*bytes)
n                 104 gc/include/gc_typed.h #  define GC_CALLOC_EXPLICITLY_TYPED(n, bytes, d) \
n                 105 gc/include/gc_typed.h 	GC_calloc_explicitly_typed(n, bytes, d)
n                   3 gc/include/leak_detector.h #define malloc(n) GC_MALLOC(n)
n                   4 gc/include/leak_detector.h #define calloc(m,n) GC_MALLOC((m)*(n))
n                   6 gc/include/leak_detector.h #define realloc(p,n) GC_REALLOC((p),(n))
n                 116 gc/include/new_gc_alloc.h inline size_t GC_round_up(size_t n)
n                 118 gc/include/new_gc_alloc.h     return ((n + GC_byte_alignment)/GC_byte_alignment)*GC_word_alignment;
n                 122 gc/include/new_gc_alloc.h inline size_t GC_round_up_uncollectable(size_t n)
n                 124 gc/include/new_gc_alloc.h     return ((n + GC_byte_alignment - 1)/GC_byte_alignment)*GC_word_alignment;
n                 191 gc/include/new_gc_alloc.h      	static void * allocate(size_t n)
n                 193 gc/include/new_gc_alloc.h 	    size_t nwords = GC_round_up(n);
n                 197 gc/include/new_gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc(n);
n                 206 gc/include/new_gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 208 gc/include/new_gc_alloc.h 	    size_t nwords = GC_round_up(n);
n                 212 gc/include/new_gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_atomic(n);
n                 221 gc/include/new_gc_alloc.h 	static void deallocate(void *p, size_t n)
n                 223 gc/include/new_gc_alloc.h             size_t nwords = GC_round_up(n);
n                 226 gc/include/new_gc_alloc.h 	    if (n > GC_max_fast_bytes)  {
n                 237 gc/include/new_gc_alloc.h 	static void ptr_free_deallocate(void *p, size_t n)
n                 239 gc/include/new_gc_alloc.h             size_t nwords = GC_round_up(n);
n                 242 gc/include/new_gc_alloc.h 	    if (n > GC_max_fast_bytes) {
n                 259 gc/include/new_gc_alloc.h      	static void * allocate(size_t n)
n                 261 gc/include/new_gc_alloc.h 	    size_t nwords = GC_round_up_uncollectable(n);
n                 265 gc/include/new_gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_uncollectable(n);
n                 274 gc/include/new_gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 276 gc/include/new_gc_alloc.h 	    size_t nwords = GC_round_up_uncollectable(n);
n                 280 gc/include/new_gc_alloc.h   	    if (n > GC_max_fast_bytes) return GC_malloc_atomic_uncollectable(n);
n                 289 gc/include/new_gc_alloc.h 	static void deallocate(void *p, size_t n)
n                 291 gc/include/new_gc_alloc.h             size_t nwords = GC_round_up_uncollectable(n);
n                 294 gc/include/new_gc_alloc.h 	    if (n > GC_max_fast_bytes)  {
n                 303 gc/include/new_gc_alloc.h 	static void ptr_free_deallocate(void *p, size_t n)
n                 305 gc/include/new_gc_alloc.h             size_t nwords = GC_round_up_uncollectable(n);
n                 308 gc/include/new_gc_alloc.h 	    if (n > GC_max_fast_bytes) {
n                 324 gc/include/new_gc_alloc.h      	static void * allocate(size_t n) { return GC_malloc(n); }
n                 325 gc/include/new_gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 326 gc/include/new_gc_alloc.h 		{ return GC_malloc_atomic(n); }
n                 336 gc/include/new_gc_alloc.h      	static void * allocate(size_t n) { return GC_malloc_uncollectable(n); }
n                 337 gc/include/new_gc_alloc.h      	static void * ptr_free_allocate(size_t n)
n                 338 gc/include/new_gc_alloc.h 		{ return GC_malloc_atomic_uncollectable(n); }
n                 353 gc/include/new_gc_alloc.h     static T *allocate(size_t n) \
n                 354 gc/include/new_gc_alloc.h 	{ return 0 == n? 0 : \
n                 355 gc/include/new_gc_alloc.h 			 reinterpret_cast<T*>(alloc::ptr_free_allocate(n * sizeof (T))); } \
n                 358 gc/include/new_gc_alloc.h     static void deallocate(T *p, size_t n) \
n                 359 gc/include/new_gc_alloc.h 	{ if (0 != n) alloc::ptr_free_deallocate(p, n * sizeof (T)); } \
n                 110 gc/include/private/cord_pos.h #define CORD_pos_advance(p,n) ((p)[0].cur_pos += (n) - 1, CORD_next(p))
n                 128 gc/include/private/dbg_mlc.h #define SIMPLE_ROUNDED_UP_WORDS(n) BYTES_TO_WORDS((n) + WORDS_TO_BYTES(1) - 1)
n                 107 gc/include/private/gc_locks.h 	  long oldval, n = 1;
n                 111 gc/include/private/gc_locks.h 		: "r"(n), "1"(*addr) : "memory");
n                 113 gc/include/private/gc_locks.h 	  oldval = _InterlockedExchange(addr, n);
n                 362 gc/include/private/gc_priv.h #   define BCOPY(x,y,n) memcpy(y, x, (size_t)(n))
n                 363 gc/include/private/gc_priv.h #   define BZERO(x,n)  memset(x, 0, (size_t)(n))
n                 365 gc/include/private/gc_priv.h #   define BCOPY(x,y,n) bcopy((char *)(x),(char *)(y),(int)(n))
n                 366 gc/include/private/gc_priv.h #   define BZERO(x,n) bzero((char *)(x),(int)(n))
n                 478 gc/include/private/gc_priv.h #  define modWORDSZ(n) ((n) & 0x1f)        /* n mod size of word	    */
n                 488 gc/include/private/gc_priv.h #  define modWORDSZ(n) ((n) & 0x3f)        /* n mod size of word	    */
n                 498 gc/include/private/gc_priv.h #define divWORDSZ(n) ((n) >> LOGWL)	   /* divide n by size of word      */
n                 556 gc/include/private/gc_priv.h # define divHBLKSZ(n) ((n) >> LOG_HBLKSIZE)
n                 566 gc/include/private/gc_priv.h # define modHBLKSZ(n) ((n) & (HBLKSIZE-1))
n                 573 gc/include/private/gc_priv.h # define ROUNDED_UP_WORDS(n) \
n                 574 gc/include/private/gc_priv.h 	BYTES_TO_WORDS((n) + (WORDS_TO_BYTES(1) - 1 + EXTRA_BYTES))
n                 576 gc/include/private/gc_priv.h #       define ALIGNED_WORDS(n) \
n                 577 gc/include/private/gc_priv.h 	    (BYTES_TO_WORDS((n) + WORDS_TO_BYTES(2) - 1 + EXTRA_BYTES) & ~1)
n                 579 gc/include/private/gc_priv.h #       define ALIGNED_WORDS(n) ROUNDED_UP_WORDS(n)
n                1254 gc/include/private/gc_priv.h # define mark_bit_from_hdr(hhdr,n) ((hhdr)->hb_marks[(n) >> 1])
n                1255 gc/include/private/gc_priv.h # define set_mark_bit_from_hdr(hhdr,n) ((hhdr)->hb_marks[(n)>>1]) = 1
n                1256 gc/include/private/gc_priv.h # define clear_mark_bit_from_hdr(hhdr,n) ((hhdr)->hb_marks[(n)>>1]) = 0
n                1258 gc/include/private/gc_priv.h # define mark_bit_from_hdr(hhdr,n) (((hhdr)->hb_marks[divWORDSZ(n)] \
n                1259 gc/include/private/gc_priv.h 			    >> (modWORDSZ(n))) & (word)1)
n                1260 gc/include/private/gc_priv.h # define set_mark_bit_from_hdr(hhdr,n) \
n                1261 gc/include/private/gc_priv.h 			    OR_WORD((hhdr)->hb_marks+divWORDSZ(n), \
n                1262 gc/include/private/gc_priv.h 				    (word)1 << modWORDSZ(n))
n                1263 gc/include/private/gc_priv.h # define clear_mark_bit_from_hdr(hhdr,n) (hhdr)->hb_marks[divWORDSZ(n)] \
n                1264 gc/include/private/gc_priv.h 				&= ~((word)1 << modWORDSZ(n))
n                1562 gc/include/private/gc_priv.h GC_bool GC_expand_hp_inner GC_PROTO((word n));
n                1613 gc/include/private/gc_priv.h void GC_collect_a_little_inner GC_PROTO((int n));
n                1783 gc/include/private/gc_priv.h void GC_is_fresh GC_PROTO((struct hblk *h, word n));
n                  61 gc/include/private/pthread_support.h #	define INDEX_FROM_BYTES(n) ((ADD_SLOP(n) + GRANULARITY - 1)/GRANULARITY)
n                  22 gc/include/private/specific.h #define MALLOC_CLEAR(n) GC_INTERNAL_MALLOC(n, NORMAL)
n                  26 gc/include/private/specific.h #define CACHE_HASH(n) (((((long)n) >> 8) ^ (long)n) & (TS_CACHE_SIZE - 1))
n                  28 gc/include/private/specific.h #define HASH(n) (((((long)n) >> 8) ^ (long)n) & (TS_HASH_SIZE - 1))
n                 353 gc/malloc.c        GC_PTR calloc(size_t n, size_t lb)
n                 355 gc/malloc.c        GC_PTR calloc(n, lb)
n                 356 gc/malloc.c        size_t n, lb;
n                 359 gc/malloc.c        return((GC_PTR)REDIRECT_MALLOC(n*lb));
n                 248 gc/mallocx.c   void GC_incr_words_allocd(size_t n)
n                 250 gc/mallocx.c       GC_words_allocd += n;
n                 254 gc/mallocx.c   void GC_incr_mem_freed(size_t n)
n                 256 gc/mallocx.c       GC_mem_freed += n;
n                 535 gc/mark.c      #   define PROF(n) GC_prof_array[n]++
n                 537 gc/mark.c      #   define PROF(n)
n                 915 gc/mark.c          unsigned n;
n                 924 gc/mark.c              for (n = 0; n < N_LOCAL_ITERS; ++n) {
n                1135 gc/mark.c      static void alloc_mark_stack(n)
n                1136 gc/mark.c      word n;
n                1138 gc/mark.c          mse * new_stack = (mse *)GC_scratch_alloc(n * sizeof(struct GC_ms_entry));
n                1154 gc/mark.c                GC_mark_stack_size = n;
n                1155 gc/mark.c      	  GC_mark_stack_limit = new_stack + n;
n                1166 gc/mark.c      		    	 (unsigned long) n);
n                1176 gc/mark.c              GC_mark_stack_size = n;
n                1177 gc/mark.c      	GC_mark_stack_limit = new_stack + n;
n                2142 gc/os_dep.c    void GC_is_fresh(h, n)
n                2144 gc/os_dep.c    word n;
n                3047 gc/os_dep.c    void GC_is_fresh(h, n)
n                3049 gc/os_dep.c    word n;
n                3284 gc/os_dep.c    void GC_is_fresh(h, n)
n                3286 gc/os_dep.c    word n;
n                3295 gc/os_dep.c            for (i = 0; i < n; i++) {
n                 835 gc/reclaim.c   static int set_bits(n)
n                 836 gc/reclaim.c   word n;
n                 838 gc/reclaim.c       register word m = n;
n                  81 gc/solaris_pthreads.c     int    n;
n                 119 gc/solaris_pthreads.c 	(void)pthread_attr_getscope(attr_in, &n);
n                 120 gc/solaris_pthreads.c 	(void)pthread_attr_setscope(&attr, n);
n                 123 gc/solaris_pthreads.c 	(void)pthread_attr_getschedpolicy(attr_in, &n);
n                 124 gc/solaris_pthreads.c 	(void)pthread_attr_setschedpolicy(&attr, n);
n                 125 gc/solaris_pthreads.c 	(void)pthread_attr_getinheritsched(attr_in, &n);
n                 126 gc/solaris_pthreads.c 	(void)pthread_attr_setinheritsched(&attr, n);
n                  81 gc/solaris_threads.c void GC_msec_sleep(int n)
n                  86 gc/solaris_threads.c     ts.tv_nsec = 1000000*n;
n                 185 gc/solaris_threads.c #define ROUNDUP(n)    WORDS_TO_BYTES(ROUNDED_UP_WORDS(n))
n                 187 gc/solaris_threads.c static void set_max_lwps(GC_word n)
n                 191 gc/solaris_threads.c     int required_bytes = ROUNDUP(n * sizeof(struct lwp_cache_entry))
n                 192 gc/solaris_threads.c 	+ ROUNDUP(n * sizeof(prgregset_t))
n                 193 gc/solaris_threads.c 	+ ROUNDUP((n + 1) * sizeof(lwpid_t))
n                 194 gc/solaris_threads.c 	+ ROUNDUP((n + 1) * sizeof(lwpid_t));
n                 205 gc/solaris_threads.c     mem += ROUNDUP(n * sizeof(struct lwp_cache_entry));
n                 209 gc/solaris_threads.c     mem += ROUNDUP(n * sizeof(prgregset_t));
n                 213 gc/solaris_threads.c     mem += ROUNDUP((n + 1) * sizeof(lwpid_t));
n                 216 gc/solaris_threads.c     mem += ROUNDUP((n + 1)* sizeof(lwpid_t));
n                 221 gc/solaris_threads.c     max_lwps = n;
n                 794 gc/tests/test.c tn * mktree(n)
n                 795 gc/tests/test.c int n;
n                 821 gc/tests/test.c     if (n == 0) return(0);
n                 826 gc/tests/test.c     result -> level = n;
n                 827 gc/tests/test.c     result -> lchild = mktree(n-1);
n                 828 gc/tests/test.c     result -> rchild = mktree(n-1);
n                 829 gc/tests/test.c     if (counter++ % 17 == 0 && n >= 2) {
n                 872 gc/tests/test.c         GC_REGISTER_FINALIZER((GC_PTR)result, finalizer, (GC_PTR)(GC_word)n,
n                 901 gc/tests/test.c void chktree(t,n)
n                 903 gc/tests/test.c int n;
n                 905 gc/tests/test.c     if (n == 0 && t != 0) {
n                 909 gc/tests/test.c     if (n == 0) return;
n                 910 gc/tests/test.c     if (t -> level != n) {
n                 912 gc/tests/test.c         		 (unsigned long)n);
n                 919 gc/tests/test.c     chktree(t -> lchild, n-1);
n                 924 gc/tests/test.c     chktree(t -> rchild, n-1);
n                1009 gc/tests/test.c void alloc_small(n)
n                1010 gc/tests/test.c int n;
n                1014 gc/tests/test.c     for (i = 0; i < n; i += 8) {
n                1176 gc/tests/test.c   int n = 0, i, j;
n                1177 gc/tests/test.c   q[n++] = p;
n                1179 gc/tests/test.c   for (;(q[n] = va_arg(a,void *));n++) ;
n                1181 gc/tests/test.c   for (i=0; i<n; i++)
n                1195 gc/tests/test.c #   define TEST_FAIL_COUNT(n) 1
n                1197 gc/tests/test.c #   define TEST_FAIL_COUNT(n) (fail_count >= (n))
n                1484 gc/tests/test.c   int APIENTRY WinMain(HINSTANCE instance, HINSTANCE prev, LPTSTR cmd, int n)
n                1634 gc/tests/test.c int APIENTRY GC_WinMain(HINSTANCE instance, HINSTANCE prev, LPWSTR cmd, int n)
n                1636 gc/tests/test.c int APIENTRY WinMain(HINSTANCE instance, HINSTANCE prev, LPSTR cmd, int n)
n                 202 gc/tests/test_cpp.cc     int i, iters, n;
n                 218 gc/tests/test_cpp.cc     if (argc != 2 || (0 >= (n = atoi( argv[ 1 ] )))) {
n                 220 gc/tests/test_cpp.cc         n = 10;}
n                 222 gc/tests/test_cpp.cc     for (iters = 1; iters <= n; iters++) {
n                 719 gc/typd_mlc.c    void * GC_calloc_explicitly_typed(size_t n,
n                 723 gc/typd_mlc.c    char * GC_calloc_explicitly_typed(n, lb, d)
n                 724 gc/typd_mlc.c    size_t n;
n                 738 gc/typd_mlc.c      descr_type = GC_make_array_descriptor((word)n, (word)lb, d,
n                 742 gc/typd_mlc.c      	case SIMPLE: return(GC_malloc_explicitly_typed(n*lb, simple_descr));
n                 744 gc/typd_mlc.c      	    lb *= n;
n                 748 gc/typd_mlc.c      	    lb *= n;
n                 805 gc/typd_mlc.c  	   return(GC_malloc(n*lb));
n                 943 src/bignum.c       int j, k, n, m;
n                 946 src/bignum.c   #define DIGIT(num, n) (((n)%2)? HI((num)->values[(n)/2]) : LO((num)->values[(n)/2]))
n                 947 src/bignum.c   #define DIGIT2(num, n) \
n                 948 src/bignum.c       (((n)%2)?  \
n                 949 src/bignum.c        ((LO((num)->values[(n)/2+1])<<HALF_BITS)|HI((num)->values[(n)/2])): \
n                 950 src/bignum.c        (num)->values[(n)/2])
n                 951 src/bignum.c   #define SETDIGIT(num, n, v) \
n                 952 src/bignum.c       (((n)%2)? \
n                 953 src/bignum.c        (num->values[(n)/2] = (num->values[(n)/2] & LOMASK)|((v) << HALF_BITS)) :\
n                 954 src/bignum.c        (num->values[(n)/2] = (num->values[(n)/2] & HIMASK)|((v) & LOMASK)))
n                 955 src/bignum.c   #define SETDIGIT2(num, n, v)                                             \
n                 956 src/bignum.c       (((n)%2)?                                                            \
n                 957 src/bignum.c        ((num->values[(n)/2] = LO(num->values[(n)/2])|((v)<<HALF_BITS)),    \
n                 958 src/bignum.c         (num->values[(n)/2+1] = (num->values[(n)/2+1] & HIMASK)|HI(v))) : \
n                 959 src/bignum.c        (num->values[(n)/2] = (v)))
n                 966 src/bignum.c           n = divisor->size*2 - 1;
n                 967 src/bignum.c           m = dividend->size*2 - n;
n                 969 src/bignum.c           n = divisor->size*2;
n                 970 src/bignum.c           m = dividend->size*2 - n;
n                 974 src/bignum.c       vn_1 = DIGIT(v, n-1);
n                 975 src/bignum.c       vn_2 = DIGIT(v, n-2);
n                 978 src/bignum.c       Scm_Printf(SCM_CUROUT, "shift=%d, n=%d, m=%d\n", d, n, m);
n                 985 src/bignum.c           u_long uu = (DIGIT(u, j+n) << HALF_BITS) + DIGIT(u, j+n-1);
n                 993 src/bignum.c           while ((qq*vn_2 > (rr<<HALF_BITS)+DIGIT(u, j+n-2)) && (rr < HALF_WORD)) {
n                1001 src/bignum.c           for (k = 0; k < n; k++) {
n                1016 src/bignum.c               for (k = 0; k < n; k++) {
n                1022 src/bignum.c               uj = DIGIT(u, j+n) + cy;
n                1023 src/bignum.c               SETDIGIT(u, j+n, uj);
n                1040 src/bignum.c       int n = dividend->size - 1;
n                1044 src/bignum.c       for (; n > 0; n--) {
n                1045 src/bignum.c           q1 = pu[n] / divisor + q0;
n                1046 src/bignum.c           r1 = ((pu[n] % divisor) << HALF_BITS) + HI(pu[n-1]);
n                1049 src/bignum.c           pu[n] = q1;
n                1050 src/bignum.c           pu[n-1] = (r0 << HALF_BITS) + LO(pu[n-1]);
n                  97 src/char.c     ScmChar Scm_IntToDigit(int n, int radix)
n                  99 src/char.c         if (n < 0) return SCM_CHAR_INVALID;
n                 101 src/char.c             if (n < radix) return (ScmChar)(n + '0');
n                 104 src/char.c             if (n < 10) return (ScmChar)(n + '0');
n                 105 src/char.c             if (n < radix) return (ScmChar)(n - 10 + 'a');
n                 117 src/char.c     ScmChar Scm_UcsToChar(int n)
n                 119 src/char.c         if (n < 0) Scm_Error("bad character code: %d", n);
n                 121 src/char.c         return (ScmChar)n;
n                 123 src/char.c         if (n < 0x80) return (ScmChar)n; /*ASCII range*/
n                 132 src/char.c         return Scm_UcsToCharHook(n);
n                 134 src/char.c         if (n < 0x100) return (ScmChar)n; /* ISO8859-1 */
n                 398 src/char.c         struct ScmCharSetRange *n = SCM_NEW(struct ScmCharSetRange);
n                 399 src/char.c         n->next = next;
n                 400 src/char.c         n->lo = lo;
n                 401 src/char.c         n->hi = hi;
n                 402 src/char.c         return n;
n                 851 src/char.c     #define CS(n)  predef_charsets[n]
n                1757 src/class.c        int n = 0;
n                1758 src/class.c        if (!SCM_INTP(val) || ((n = SCM_INT_VALUE(val)) < 0))
n                1760 src/class.c        sa->slotNumber = n;
n                1995 src/class.c            int n;
n                1999 src/class.c            for (ap = args, sp = m->specializers, n = 0;
n                2000 src/class.c                 n < m->common.required;
n                2001 src/class.c                 ap++, sp++, n++) {
n                2004 src/class.c            if (n == m->common.required) SCM_APPEND1(h, t, SCM_OBJ(m));
n                2017 src/class.c        int n = Scm_Length(arglist), i;
n                2018 src/class.c        if (n < 0) Scm_Error("bad argument list: %S", arglist);
n                2020 src/class.c        argv = SCM_NEW_ARRAY(ScmObj, n);
n                2023 src/class.c        return Scm_ComputeApplicableMethods(gf, argv, n);
n                1013 src/code.c         const char *n;
n                1021 src/code.c         n = Scm_GetStringConst(SCM_STRING(name));
n                1024 src/code.c             if (strcmp(insn_table[i].name, n) == 0) {
n                1164 src/extlib.c     int n;
n                1173 src/extlib.c     n = SCM_INT_VALUE(n_scm);
n                1187 src/extlib.c   r = Scm_IntToDigit(n, radix);
n                1200 src/extlib.c     int n;
n                1204 src/extlib.c     n = Scm_GetInteger(n_scm);
n                1206 src/extlib.c   ScmChar ch = Scm_UcsToChar(n);
n                4148 src/extlib.c     int n = Scm_WriteLimited(obj, port, SCM_WRITE_WRITE, limit);
n                4149 src/extlib.c     SCM_RETURN(SCM_MAKE_INT(n));
n                4175 src/extlib.c     int n = Scm_WriteCircular(obj, port, SCM_WRITE_WRITE, 0);
n                4176 src/extlib.c     SCM_RETURN(SCM_MAKE_INT(n));
n                 267 src/gauche.h   SCM_EXTERN ScmChar Scm_IntToDigit(int n, int radix);
n                  64 src/gauche/memory.h #define SCM_MALLOC_WORDS(p, n, type)            \
n                  67 src/gauche/memory.h         GC_MALLOC_WORDS(SCMMW__tmpptr, n);      \
n                  71 src/gauche/memory.h #define SCM_MALLOC_ATOMIC_WORDS(p, n)                   \
n                  74 src/gauche/memory.h         GC_MALLOC_ATOMIC_WORDS(SCMMW__tmpptr, n);       \
n                 107 src/gauche/memory.h #define SCM_MALLOC_WORDS(p, n, type) \
n                 108 src/gauche/memory.h     (p = (type)SCM_MALLOC(n * sizeof(GC_word)))
n                 110 src/gauche/memory.h #define SCM_MALLOC_ATOMIC_WORDS(p, n, type) \
n                 111 src/gauche/memory.h     (p = (type)SCM_MALLOC_ATOMIC(n * sizeof(GC_word)))
n                  84 src/hash.c         unsigned int n = 1;
n                  85 src/hash.c         while (n < val) {
n                  86 src/hash.c             n <<= 1;
n                  87 src/hash.c             SCM_ASSERT(n > 1);      /* check overflow */
n                  89 src/hash.c         return n;
n                 331 src/macro.c        ScmObj n;
n                 333 src/macro.c            n = SCM_OBJ(SCM_IDENTIFIER(name)->name);
n                 335 src/macro.c            n = name;
n                 530 src/module.c           int n = SCM_CHAR_NFOLLOWS(*p);
n                 532 src/module.c           else p += n+1;
n                 546 src/module.c           int n = SCM_CHAR_NFOLLOWS(*p);
n                 549 src/module.c           else p += n+1;
n                1876 src/number.c   static inline u_long ipow(int r, int n)
n                1879 src/number.c       for (k=1; n>0; n--) k *= r;
n                1888 src/number.c   static double raise_pow10(double x, int n)
n                1895 src/number.c       if (n >= 0) {
n                1896 src/number.c           while (n > 23) {
n                1898 src/number.c               n -= 24;
n                1900 src/number.c           return x*dpow10[n];
n                1902 src/number.c           while (n < -23) {
n                1904 src/number.c               n += 24;
n                1906 src/number.c           return x/dpow10[-n];
n                2706 src/number.c       u_long n;
n                2712 src/number.c           for (i = 0, n = 1; ; i++, n *= radix) {
n                2713 src/number.c               if (n >= LONG_MAX/radix) {
n                2715 src/number.c                   bigdig[radix-RADIX_MIN] = n;
n                 652 src/portapi.c      int i, n = 0;
n                 662 src/portapi.c          SAFE_CALL(p, n = Scm_Getz(buf+i, buflen-i, p));
n                 663 src/portapi.c          return i + n;
n                 685 src/regexp.c               ScmObj n = SCM_CADR(token), m = SCM_CDDR(token);
n                 689 src/regexp.c               SCM_ASSERT(SCM_INTP(n));
n                 690 src/regexp.c               item = Scm_MakeList(SCM_INT_VALUE(n), SCM_CAR(stack));
n                 701 src/regexp.c                   m_n = SCM_INT_VALUE(m)-SCM_INT_VALUE(n);
n                1253 src/regexp.c           int count, n, j0 = 0, jn;
n                1263 src/regexp.c           for (n=0; n<count; n++) {
n                1264 src/regexp.c               if (n>0) rc3_fill_offset(ctx, j0, ctx->codep);
n                1294 src/regexp.c           for (n=0; n<count; n++) {
n                  96 src/string.c           int n = SCM_CHAR_NFOLLOWS(*p) + 1;
n                  97 src/string.c           for (; n > 0 && s > 0; p++, n--, s--, i++) {
n                 447 src/string.c       int n;
n                 450 src/string.c           n = SCM_CHAR_NFOLLOWS(*current);
n                 451 src/string.c           current += n + 1;
n                  62 src/symbol.c           ScmObj n = Scm_CopyStringWithFlags(name, SCM_STRING_IMMUTABLE,
n                  65 src/symbol.c           INITSYM(sym, n);
n                  66 src/symbol.c           Scm_HashTablePut(obtable, n, SCM_OBJ(sym));
n                2556 src/syslib.c     int n;
n                2557 src/syslib.c     SCM_SYSCALL(n, readlink(path, buf, READLINK_PATH_MAX));
n                2558 src/syslib.c     if (n < 0) Scm_SysError("readlink failed");
n                2559 src/syslib.c     if (n == READLINK_PATH_MAX) Scm_Error("readlink result too long");
n                2560 src/syslib.c     return Scm_MakeString(buf, n, -1, SCM_MAKSTR_COPYING);
n                 306 src/vm.c       #define CHECK_STACK_PARANOIA(n)  CHECK_STACK(n)
n                 308 src/vm.c       #define CHECK_STACK_PARANOIA(n)  /*empty*/
n                 938 src/vm.c                           ScmNextMethod *n = SCM_NEXT_METHOD(VAL0);
n                 940 src/vm.c                               CHECK_STACK(n->nargs+1);
n                 941 src/vm.c                               memcpy(SP, n->args, sizeof(ScmObj)*n->nargs);
n                 942 src/vm.c                               SP += n->nargs;
n                 943 src/vm.c                               argc = n->nargs;
n                 945 src/vm.c                           if (SCM_NULLP(n->methods)) {
n                 946 src/vm.c                               VAL0 = SCM_OBJ(n->generic);
n                 949 src/vm.c                               nm = Scm_MakeNextMethod(n->generic,
n                 950 src/vm.c                                                       SCM_CDR(n->methods),
n                 952 src/vm.c                               VAL0 = SCM_CAR(n->methods);
n                1101 src/write.c                            int n = Scm_WriteCircular(val, SCM_OBJ(out), mode, width);
n                1102 src/write.c                            if (n < 0 && prec > 0) {
n                1105 src/write.c                            if (n > 0) {
n                1106 src/write.c                                for (; n < prec; n++) Scm_PutcUnsafe(' ', out);
n                1111 src/write.c                            int n = Scm_WriteLimited(val, SCM_OBJ(out), mode, width);
n                1112 src/write.c                            if (n < 0 && prec > 0) {
n                1115 src/write.c                            if (n > 0) {
n                1116 src/write.c                                for (; n < prec; n++) Scm_PutcUnsafe(' ', out);