Changeset 856dff8 for libcfa/src
- Timestamp:
- Aug 28, 2020, 11:15:36 AM (5 years ago)
- Branches:
- ADT, arm-eh, ast-experimental, enum, forall-pointer-decay, jacob/cs343-translation, master, new-ast-unique-expr, pthread-emulation, qualifiedEnum
- Children:
- 3b2f41e
- Parents:
- b7fe2e6 (diff), 8e2cb4a (diff)
Note: this is a merge changeset, the changes displayed below correspond to the merge itself.
Use the(diff)
links above to see all the changes relative to each parent. - Location:
- libcfa/src
- Files:
-
- 3 added
- 13 edited
- 1 moved
Legend:
- Unmodified
- Added
- Removed
-
libcfa/src/Makefile.am
rb7fe2e6 r856dff8 92 92 inst_thread_headers_src = \ 93 93 concurrency/coroutine.hfa \ 94 concurrency/exception.hfa \ 94 95 concurrency/kernel.hfa \ 95 96 concurrency/monitor.hfa \ -
libcfa/src/bitmanip.hfa
rb7fe2e6 r856dff8 11 11 // Created On : Sat Mar 14 18:12:27 2020 12 12 // Last Modified By : Peter A. Buhr 13 // Last Modified On : Mon Aug 10 09:21:02202014 // Update Count : 1 3913 // Last Modified On : Sun Aug 23 21:39:28 2020 14 // Update Count : 140 15 15 // 16 16 … … 103 103 // T floor2( T n, T align ) { verify( is_pow2( align ) ); return n & -align; } 104 104 105 signed char floor( signed char n, signed char align ) { return n / align * align; }106 unsigned char floor( unsigned char n, unsigned char align ) { return n / align * align; }107 short int floor( short int n, short int align ) { return n / align * align; }108 unsigned short int floor( unsigned short int n, unsigned short int align ) { return n / align * align; }109 int floor( int n, int align ) { return n / align * align; }110 unsigned int floor( unsigned int n, unsigned int align ) { return n / align * align; }111 long int floor( long int n, long int align ) { return n / align * align; }112 unsigned long int floor( unsigned long int n, unsigned long int align ) { return n / align * align; }113 long long int floor( long long int n, long long int align ) { return n / align * align; }114 unsigned long long int floor( unsigned long long int n, unsigned long long int align ) { return n / align * align; }115 116 // forall( otype T | { T ?/?( T, T ); T ?*?( T, T ); } )117 // T floor( T n, T align ) { return n / align * align; }118 119 105 // Returns n aligned at the ceiling of align, negate, round down, negate is the same as round up. 120 106 signed char ceiling2( signed char n, signed char align ) { verify( is_pow2( align ) ); return -floor2( -n, align ); } … … 131 117 // forall( otype T | { T floor2( T, T ); T -?( T ); } ) 132 118 // T ceiling2( T n, T align ) { verify( is_pow2( align ) ); return -floor2( -n, align ); } 133 134 signed char ceiling_div( signed char n, char align ) { return (n + (align - 1)) / align; }135 unsigned char ceiling_div( unsigned char n, unsigned char align ) { return (n + (align - 1)) / align; }136 short int ceiling_div( short int n, short int align ) { return (n + (align - 1)) / align; }137 unsigned short int ceiling_div( unsigned short int n, unsigned short int align ) { return (n + (align - 1)) / align; }138 int ceiling_div( int n, int align ) { return (n + (align - 1)) / align; }139 unsigned int ceiling_div( unsigned int n, unsigned int align ) { return (n + (align - 1)) / align; }140 long int ceiling_div( long int n, long int align ) { return (n + (align - 1)) / align; }141 unsigned long int ceiling_div( unsigned long int n, unsigned long int align ) { return (n + (align - 1)) / align; }142 long long int ceiling_div( long long int n, long long int align ) { return (n + (align - 1)) / align; }143 unsigned long long int ceiling_div( unsigned long long int n, unsigned long long int align ) { return (n + (align - 1)) / align; }144 145 // forall( otype T | { T ?+?( T, T ); T ?-?( T, T ); T ?%?( T, T ); } )146 // T ceiling_div( T n, T align ) { verify( is_pow2( align ) );return (n + (align - 1)) / align; }147 148 // gcc notices the div/mod pair and saves both so only one div.149 signed char ceiling( signed char n, signed char align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }150 unsigned char ceiling( unsigned char n, unsigned char align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }151 short int ceiling( short int n, short int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }152 unsigned short int ceiling( unsigned short int n, unsigned short int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }153 int ceiling( int n, int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }154 unsigned int ceiling( unsigned int n, unsigned int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }155 long int ceiling( long int n, long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }156 unsigned long int ceiling( unsigned long int n, unsigned long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0) , align); }157 long long int ceiling( long long int n, long long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }158 unsigned long long int ceiling( unsigned long long int n, unsigned long long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); }159 160 // forall( otype T | { void ?{}( T &, one_t ); T ?+?( T, T ); T ?-?( T, T ); T ?/?( T, T ); } )161 // T ceiling( T n, T align ) { return return floor( n + (n % align != 0 ? align - 1 : 0), align ); *}162 119 } // distribution 163 120 -
libcfa/src/concurrency/coroutine.cfa
rb7fe2e6 r856dff8 215 215 return cor; 216 216 } 217 218 struct $coroutine * __cfactx_cor_active(void) {219 return active_coroutine();220 }221 217 } 222 218 -
libcfa/src/concurrency/invoke.c
rb7fe2e6 r856dff8 29 29 // Called from the kernel when starting a coroutine or task so must switch back to user mode. 30 30 31 extern struct $coroutine * __cfactx_cor_active(void);32 31 extern struct $coroutine * __cfactx_cor_finish(void); 33 32 extern void __cfactx_cor_leave ( struct $coroutine * ); … … 36 35 extern void disable_interrupts() OPTIONAL_THREAD; 37 36 extern void enable_interrupts( __cfaabi_dbg_ctx_param ); 38 39 struct exception_context_t * this_exception_context() {40 return &__get_stack( __cfactx_cor_active() )->exception_context;41 }42 37 43 38 void __cfactx_invoke_coroutine( -
libcfa/src/concurrency/invoke.h
rb7fe2e6 r856dff8 98 98 } 99 99 100 struct exception_context_t * this_exception_context();101 102 100 // struct which calls the monitor is accepting 103 101 struct __waitfor_mask_t { -
libcfa/src/concurrency/io/setup.cfa
rb7fe2e6 r856dff8 384 384 /* paranoid */ verify( is_pow2( params_in.num_ready ) || (params_in.num_ready < 8) ); 385 385 sq.ready_cnt = max( params_in.num_ready, 8 ); 386 sq.ready = alloc _align( 64, sq.ready_cnt);386 sq.ready = alloc( sq.ready_cnt, 64`align ); 387 387 for(i; sq.ready_cnt) { 388 388 sq.ready[i] = -1ul32; -
libcfa/src/concurrency/kernel/startup.cfa
rb7fe2e6 r856dff8 579 579 580 580 // Lock the RWlock so no-one pushes/pops while we are changing the queue 581 disable_interrupts(); 581 582 uint_fast32_t last_size = ready_mutate_lock(); 582 583 … … 586 587 // Unlock the RWlock 587 588 ready_mutate_unlock( last_size ); 589 enable_interrupts_noPoll(); // Don't poll, could be in main cluster 590 588 591 589 592 this.io.cnt = num_io; … … 601 604 602 605 // Lock the RWlock so no-one pushes/pops while we are changing the queue 606 disable_interrupts(); 603 607 uint_fast32_t last_size = ready_mutate_lock(); 604 608 … … 608 612 // Unlock the RWlock 609 613 ready_mutate_unlock( last_size ); 614 enable_interrupts_noPoll(); // Don't poll, could be in main cluster 610 615 611 616 #if !defined(__CFA_NO_STATISTICS__) -
libcfa/src/concurrency/ready_queue.cfa
rb7fe2e6 r856dff8 215 215 } 216 216 217 static inline [unsigned, bool] idx_from_r(unsigned r, unsigned preferred) { 218 unsigned i; 219 bool local; 220 #if defined(BIAS) 221 unsigned rlow = r % BIAS; 222 unsigned rhigh = r / BIAS; 223 if((0 != rlow) && preferred >= 0) { 224 // (BIAS - 1) out of BIAS chances 225 // Use perferred queues 226 i = preferred + (rhigh % 4); 227 local = true; 228 } 229 else { 230 // 1 out of BIAS chances 231 // Use all queues 232 i = rhigh; 233 local = false; 234 } 235 #else 236 i = r; 237 local = false; 238 #endif 239 return [i, local]; 240 } 241 217 242 //----------------------------------------------------------------------- 218 243 __attribute__((hot)) bool push(struct cluster * cltr, struct $thread * thrd) with (cltr->ready_queue) { … … 222 247 thrd->link.ts = rdtscl(); 223 248 224 #if defined(BIAS) && !defined(__CFA_NO_STATISTICS__) 225 bool local = false; 226 int preferred = 249 __attribute__((unused)) bool local; 250 __attribute__((unused)) int preferred; 251 #if defined(BIAS) 252 preferred = 227 253 //* 228 254 kernelTLS.this_processor ? kernelTLS.this_processor->id * 4 : -1; … … 230 256 thrd->link.preferred * 4; 231 257 //*/ 232 233 234 258 #endif 235 259 … … 238 262 do { 239 263 // Pick the index of a lane 240 #if defined(BIAS) 241 unsigned r = __tls_rand(); 242 unsigned rlow = r % BIAS; 243 unsigned rhigh = r / BIAS; 244 if((0 != rlow) && preferred >= 0) { 245 // (BIAS - 1) out of BIAS chances 246 // Use perferred queues 247 i = preferred + (rhigh % 4); 248 249 #if !defined(__CFA_NO_STATISTICS__) 250 local = true; 251 __tls_stats()->ready.pick.push.local++; 252 #endif 253 } 254 else { 255 // 1 out of BIAS chances 256 // Use all queues 257 i = rhigh; 258 local = false; 259 } 260 #else 261 i = __tls_rand(); 264 // unsigned r = __tls_rand(); 265 unsigned r = __tls_rand_fwd(); 266 [i, local] = idx_from_r(r, preferred); 267 268 #if !defined(__CFA_NO_STATISTICS__) 269 if(local) { 270 __tls_stats()->ready.pick.push.local++; 271 } 262 272 #endif 263 273 … … 274 284 275 285 // Actually push it 276 bool lane_first = push(lanes.data[i], thrd); 286 #ifdef USE_SNZI 287 bool lane_first = 288 #endif 289 290 push(lanes.data[i], thrd); 277 291 278 292 #ifdef USE_SNZI … … 287 301 #endif 288 302 303 __tls_rand_advance_bck(); 304 289 305 // Unlock and return 290 306 __atomic_unlock( &lanes.data[i].lock ); … … 311 327 /* paranoid */ verify( lanes.count > 0 ); 312 328 unsigned count = __atomic_load_n( &lanes.count, __ATOMIC_RELAXED ); 329 int preferred; 313 330 #if defined(BIAS) 314 331 // Don't bother trying locally too much 315 332 int local_tries = 8; 316 #endif 333 preferred = kernelTLS.this_processor->id * 4; 334 #endif 335 317 336 318 337 // As long as the list is not empty, try finding a lane that isn't empty and pop from it … … 323 342 #endif 324 343 // Pick two lists at random 325 unsigned i,j; 326 #if defined(BIAS) 327 #if !defined(__CFA_NO_STATISTICS__) 328 bool local = false; 329 #endif 330 uint64_t r = __tls_rand(); 331 unsigned rlow = r % BIAS; 332 uint64_t rhigh = r / BIAS; 333 if(local_tries && 0 != rlow) { 334 // (BIAS - 1) out of BIAS chances 335 // Use perferred queues 336 unsigned pid = kernelTLS.this_processor->id * 4; 337 i = pid + (rhigh % 4); 338 j = pid + ((rhigh >> 32ull) % 4); 339 340 // count the tries 341 local_tries--; 342 343 #if !defined(__CFA_NO_STATISTICS__) 344 local = true; 345 __tls_stats()->ready.pick.pop.local++; 346 #endif 347 } 348 else { 349 // 1 out of BIAS chances 350 // Use all queues 351 i = rhigh; 352 j = rhigh >> 32ull; 353 } 354 #else 355 i = __tls_rand(); 356 j = __tls_rand(); 344 // unsigned ri = __tls_rand(); 345 // unsigned rj = __tls_rand(); 346 unsigned ri = __tls_rand_bck(); 347 unsigned rj = __tls_rand_bck(); 348 349 unsigned i, j; 350 __attribute__((unused)) bool locali, localj; 351 [i, locali] = idx_from_r(ri, preferred); 352 [j, localj] = idx_from_r(rj, preferred); 353 354 #if !defined(__CFA_NO_STATISTICS__) 355 if(locali) { 356 __tls_stats()->ready.pick.pop.local++; 357 } 358 if(localj) { 359 __tls_stats()->ready.pick.pop.local++; 360 } 357 361 #endif 358 362 … … 364 368 if(thrd) { 365 369 #if defined(BIAS) && !defined(__CFA_NO_STATISTICS__) 366 if( local ) __tls_stats()->ready.pick.pop.lsuccess++;370 if( locali || localj ) __tls_stats()->ready.pick.pop.lsuccess++; 367 371 #endif 368 372 return thrd; … … 543 547 544 548 // Allocate new array (uses realloc and memcpies the data) 545 lanes.data = alloc( lanes.data, ncount);549 lanes.data = alloc( ncount, lanes.data`realloc ); 546 550 547 551 // Fix the moved data … … 634 638 635 639 // Allocate new array (uses realloc and memcpies the data) 636 lanes.data = alloc( lanes.data, lanes.count);640 lanes.data = alloc( lanes.count, lanes.data`realloc ); 637 641 638 642 // Fix the moved data -
libcfa/src/exception.c
rb7fe2e6 r856dff8 209 209 void * stop_param) { 210 210 // Verify actions follow the rules we expect. 211 verify((actions & _UA_CLEANUP_PHASE) && (actions & _UA_FORCE_UNWIND)); 212 verify(!(actions & (_UA_SEARCH_PHASE | _UA_HANDLER_FRAME))); 211 verify(actions & _UA_CLEANUP_PHASE); 212 verify(actions & _UA_FORCE_UNWIND); 213 verify(!(actions & _UA_SEARCH_PHASE)); 214 verify(!(actions & _UA_HANDLER_FRAME)); 213 215 214 216 if ( actions & _UA_END_OF_STACK ) { 215 exit(1);217 abort(); 216 218 } else { 217 219 return _URC_NO_REASON; … … 219 221 } 220 222 221 static struct _Unwind_Exception cancel_exception_storage; 223 __attribute__((weak)) _Unwind_Reason_Code 224 __cfaehm_cancellation_unwind( struct _Unwind_Exception * exception ) { 225 return _Unwind_ForcedUnwind( exception, _Stop_Fn, (void*)0x22 ); 226 } 222 227 223 228 // Cancel the current stack, prefroming approprate clean-up and messaging. 224 229 void __cfaehm_cancel_stack( exception_t * exception ) { 225 // TODO: Detect current stack and pick a particular stop-function. 230 __cfaehm_allocate_exception( exception ); 231 232 struct exception_context_t * context = this_exception_context(); 233 struct __cfaehm_node * node = EXCEPT_TO_NODE(context->current_exception); 234 235 // Preform clean-up of any extra active exceptions. 236 while ( node->next ) { 237 struct __cfaehm_node * to_free = node->next; 238 node->next = to_free->next; 239 exception_t * except = NODE_TO_EXCEPT( to_free ); 240 except->virtual_table->free( except ); 241 free( to_free ); 242 } 243 226 244 _Unwind_Reason_Code ret; 227 ret = _ Unwind_ForcedUnwind( &cancel_exception_storage, _Stop_Fn, (void*)0x22);245 ret = __cfaehm_cancellation_unwind( &node->unwind_exception ); 228 246 printf("UNWIND ERROR %d after force unwind\n", ret); 229 247 abort(); -
libcfa/src/heap.cfa
rb7fe2e6 r856dff8 10 10 // Created On : Tue Dec 19 21:58:35 2017 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Wed Aug 12 16:43:38202013 // Update Count : 9 0212 // Last Modified On : Mon Aug 24 20:29:24 2020 13 // Update Count : 926 14 14 // 15 15 … … 27 27 #include "bits/locks.hfa" // __spinlock_t 28 28 #include "startup.hfa" // STARTUP_PRIORITY_MEMORY 29 //#include "stdlib.hfa" // bsearchl 30 #include "bitmanip.hfa" // ceiling29 #include "math.hfa" // ceiling 30 #include "bitmanip.hfa" // is_pow2, ceiling2 31 31 32 32 #define MIN(x, y) (y > x ? x : y) … … 651 651 #else 652 652 // for ( HeapManager.Storage * p = top( freeLists[i].freeList ); p != 0p; p = (p)`next->top ) { 653 for ( HeapManager.Storage * p = top( freeLists[i].freeList ); p != 0p; /* p = getNext( p )->top */) { 654 typeof(p) temp = (( p )`next)->top; // FIX ME: direct assignent fails, initialization works 655 p = temp; 653 // for ( HeapManager.Storage * p = top( freeLists[i].freeList ); p != 0p; /* p = getNext( p )->top */) { 654 for ( HeapManager.Storage * p ;; /* p = getNext( p )->top */) { 655 HeapManager.Storage * temp = p->header.kind.real.next.top; // FIX ME: direct assignent fails, initialization works` 656 // typeof(p) temp = (( p )`next)->top; // FIX ME: direct assignent fails, initialization works` 657 // p = temp; 656 658 #endif // BUCKETLOCK 657 659 total += size; -
libcfa/src/iostream.cfa
rb7fe2e6 r856dff8 10 10 // Created On : Wed May 27 17:56:53 2015 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Tue Aug 11 22:16:33202013 // Update Count : 11 2812 // Last Modified On : Mon Aug 24 08:31:35 2020 13 // Update Count : 1130 14 14 // 15 15 … … 20 20 #include <stdint.h> // UINT64_MAX 21 21 #include <float.h> // DBL_DIG, LDBL_DIG 22 #include <math.h> // isfinite23 22 #include <complex.h> // creal, cimag 24 //#include <string.h> // strlen, strcmp 23 //#include <string.h> // strlen, strcmp, memcpy 25 24 extern "C" { 26 25 extern size_t strlen (const char *__s) __attribute__ ((__nothrow__ , __leaf__)) __attribute__ ((__pure__)) __attribute__ ((__nonnull__ (1))); … … 30 29 } // extern "C" 31 30 32 #include <bitmanip.hfa> // high1 31 #include "math.hfa" // isfinite, floor, ceiling_div 32 #include "bitmanip.hfa" // high1 33 33 34 34 -
libcfa/src/math.hfa
rb7fe2e6 r856dff8 10 10 // Created On : Mon Apr 18 23:37:04 2016 11 11 // Last Modified By : Peter A. Buhr 12 // Last Modified On : Tue Feb 4 10:27:11202013 // Update Count : 1 1712 // Last Modified On : Mon Aug 24 08:56:20 2020 13 // Update Count : 126 14 14 // 15 15 … … 19 19 #include <complex.h> 20 20 21 //--------------------------------------- 22 23 #include "common.hfa" 24 21 25 //---------------------- General ---------------------- 22 26 23 static inline float ?%?( float x, float y ) { return fmodf( x, y ); } 24 static inline float fmod( float x, float y ) { return fmodf( x, y ); } 25 static inline double ?%?( double x, double y ) { return fmod( x, y ); } 26 // extern "C" { double fmod( double, double ); } 27 static inline long double ?%?( long double x, long double y ) { return fmodl( x, y ); } 28 static inline long double fmod( long double x, long double y ) { return fmodl( x, y ); } 29 30 static inline float remainder( float x, float y ) { return remainderf( x, y ); } 31 // extern "C" { double remainder( double, double ); } 32 static inline long double remainder( long double x, long double y ) { return remainderl( x, y ); } 33 34 static inline float remquo( float x, float y, int * quo ) { return remquof( x, y, quo ); } 35 // extern "C" { double remquo( double x, double y, int * quo ); } 36 static inline long double remquo( long double x, long double y, int * quo ) { return remquol( x, y, quo ); } 37 static inline [ int, float ] remquo( float x, float y ) { int quo; x = remquof( x, y, &quo ); return [ quo, x ]; } 38 static inline [ int, double ] remquo( double x, double y ) { int quo; x = remquo( x, y, &quo ); return [ quo, x ]; } 39 static inline [ int, long double ] remquo( long double x, long double y ) { int quo; x = remquol( x, y, &quo ); return [ quo, x ]; } 40 41 static inline [ float, float ] div( float x, float y ) { y = modff( x / y, &x ); return [ x, y ]; } 42 static inline [ double, double ] div( double x, double y ) { y = modf( x / y, &x ); return [ x, y ]; } 43 static inline [ long double, long double ] div( long double x, long double y ) { y = modfl( x / y, &x ); return [ x, y ]; } 44 45 static inline float fma( float x, float y, float z ) { return fmaf( x, y, z ); } 46 // extern "C" { double fma( double, double, double ); } 47 static inline long double fma( long double x, long double y, long double z ) { return fmal( x, y, z ); } 48 49 static inline float fdim( float x, float y ) { return fdimf( x, y ); } 50 // extern "C" { double fdim( double, double ); } 51 static inline long double fdim( long double x, long double y ) { return fdiml( x, y ); } 52 53 static inline float nan( const char tag[] ) { return nanf( tag ); } 54 // extern "C" { double nan( const char [] ); } 55 static inline long double nan( const char tag[] ) { return nanl( tag ); } 27 static inline { 28 float ?%?( float x, float y ) { return fmodf( x, y ); } 29 float fmod( float x, float y ) { return fmodf( x, y ); } 30 double ?%?( double x, double y ) { return fmod( x, y ); } 31 // extern "C" { double fmod( double, double ); } 32 long double ?%?( long double x, long double y ) { return fmodl( x, y ); } 33 long double fmod( long double x, long double y ) { return fmodl( x, y ); } 34 35 float remainder( float x, float y ) { return remainderf( x, y ); } 36 // extern "C" { double remainder( double, double ); } 37 long double remainder( long double x, long double y ) { return remainderl( x, y ); } 38 39 float remquo( float x, float y, int * quo ) { return remquof( x, y, quo ); } 40 // extern "C" { double remquo( double x, double y, int * quo ); } 41 long double remquo( long double x, long double y, int * quo ) { return remquol( x, y, quo ); } 42 [ int, float ] remquo( float x, float y ) { int quo; x = remquof( x, y, &quo ); return [ quo, x ]; } 43 [ int, double ] remquo( double x, double y ) { int quo; x = remquo( x, y, &quo ); return [ quo, x ]; } 44 [ int, long double ] remquo( long double x, long double y ) { int quo; x = remquol( x, y, &quo ); return [ quo, x ]; } 45 46 [ float, float ] div( float x, float y ) { y = modff( x / y, &x ); return [ x, y ]; } 47 [ double, double ] div( double x, double y ) { y = modf( x / y, &x ); return [ x, y ]; } 48 [ long double, long double ] div( long double x, long double y ) { y = modfl( x / y, &x ); return [ x, y ]; } 49 50 float fma( float x, float y, float z ) { return fmaf( x, y, z ); } 51 // extern "C" { double fma( double, double, double ); } 52 long double fma( long double x, long double y, long double z ) { return fmal( x, y, z ); } 53 54 float fdim( float x, float y ) { return fdimf( x, y ); } 55 // extern "C" { double fdim( double, double ); } 56 long double fdim( long double x, long double y ) { return fdiml( x, y ); } 57 58 float nan( const char tag[] ) { return nanf( tag ); } 59 // extern "C" { double nan( const char [] ); } 60 long double nan( const char tag[] ) { return nanl( tag ); } 61 } // distribution 56 62 57 63 //---------------------- Exponential ---------------------- 58 64 59 static inline float exp( float x ) { return expf( x ); } 60 // extern "C" { double exp( double ); } 61 static inline long double exp( long double x ) { return expl( x ); } 62 static inline float _Complex exp( float _Complex x ) { return cexpf( x ); } 63 static inline double _Complex exp( double _Complex x ) { return cexp( x ); } 64 static inline long double _Complex exp( long double _Complex x ) { return cexpl( x ); } 65 66 static inline float exp2( float x ) { return exp2f( x ); } 67 // extern "C" { double exp2( double ); } 68 static inline long double exp2( long double x ) { return exp2l( x ); } 69 //static inline float _Complex exp2( float _Complex x ) { return cexp2f( x ); } 70 //static inline double _Complex exp2( double _Complex x ) { return cexp2( x ); } 71 //static inline long double _Complex exp2( long double _Complex x ) { return cexp2l( x ); } 72 73 static inline float expm1( float x ) { return expm1f( x ); } 74 // extern "C" { double expm1( double ); } 75 static inline long double expm1( long double x ) { return expm1l( x ); } 76 77 static inline float pow( float x, float y ) { return powf( x, y ); } 78 // extern "C" { double pow( double, double ); } 79 static inline long double pow( long double x, long double y ) { return powl( x, y ); } 80 static inline float _Complex pow( float _Complex x, float _Complex y ) { return cpowf( x, y ); } 81 static inline double _Complex pow( double _Complex x, double _Complex y ) { return cpow( x, y ); } 82 static inline long double _Complex pow( long double _Complex x, long double _Complex y ) { return cpowl( x, y ); } 65 static inline { 66 float exp( float x ) { return expf( x ); } 67 // extern "C" { double exp( double ); } 68 long double exp( long double x ) { return expl( x ); } 69 float _Complex exp( float _Complex x ) { return cexpf( x ); } 70 double _Complex exp( double _Complex x ) { return cexp( x ); } 71 long double _Complex exp( long double _Complex x ) { return cexpl( x ); } 72 73 float exp2( float x ) { return exp2f( x ); } 74 // extern "C" { double exp2( double ); } 75 long double exp2( long double x ) { return exp2l( x ); } 76 //float _Complex exp2( float _Complex x ) { return cexp2f( x ); } 77 //double _Complex exp2( double _Complex x ) { return cexp2( x ); } 78 //long double _Complex exp2( long double _Complex x ) { return cexp2l( x ); } 79 80 float expm1( float x ) { return expm1f( x ); } 81 // extern "C" { double expm1( double ); } 82 long double expm1( long double x ) { return expm1l( x ); } 83 84 float pow( float x, float y ) { return powf( x, y ); } 85 // extern "C" { double pow( double, double ); } 86 long double pow( long double x, long double y ) { return powl( x, y ); } 87 float _Complex pow( float _Complex x, float _Complex y ) { return cpowf( x, y ); } 88 double _Complex pow( double _Complex x, double _Complex y ) { return cpow( x, y ); } 89 long double _Complex pow( long double _Complex x, long double _Complex y ) { return cpowl( x, y ); } 90 } // distribution 83 91 84 92 //---------------------- Logarithm ---------------------- 85 93 86 static inline float log( float x ) { return logf( x ); } 87 // extern "C" { double log( double ); } 88 static inline long double log( long double x ) { return logl( x ); } 89 static inline float _Complex log( float _Complex x ) { return clogf( x ); } 90 static inline double _Complex log( double _Complex x ) { return clog( x ); } 91 static inline long double _Complex log( long double _Complex x ) { return clogl( x ); } 92 93 static inline float log2( float x ) { return log2f( x ); } 94 // extern "C" { double log2( double ); } 95 static inline long double log2( long double x ) { return log2l( x ); } 96 // static inline float _Complex log2( float _Complex x ) { return clog2f( x ); } 97 // static inline double _Complex log2( double _Complex x ) { return clog2( x ); } 98 // static inline long double _Complex log2( long double _Complex x ) { return clog2l( x ); } 99 100 static inline float log10( float x ) { return log10f( x ); } 101 // extern "C" { double log10( double ); } 102 static inline long double log10( long double x ) { return log10l( x ); } 103 // static inline float _Complex log10( float _Complex x ) { return clog10f( x ); } 104 // static inline double _Complex log10( double _Complex x ) { return clog10( x ); } 105 // static inline long double _Complex log10( long double _Complex x ) { return clog10l( x ); } 106 107 static inline float log1p( float x ) { return log1pf( x ); } 108 // extern "C" { double log1p( double ); } 109 static inline long double log1p( long double x ) { return log1pl( x ); } 110 111 static inline int ilogb( float x ) { return ilogbf( x ); } 112 // extern "C" { int ilogb( double ); } 113 static inline int ilogb( long double x ) { return ilogbl( x ); } 114 115 static inline float logb( float x ) { return logbf( x ); } 116 // extern "C" { double logb( double ); } 117 static inline long double logb( long double x ) { return logbl( x ); } 118 119 static inline float sqrt( float x ) { return sqrtf( x ); } 120 // extern "C" { double sqrt( double ); } 121 static inline long double sqrt( long double x ) { return sqrtl( x ); } 122 static inline float _Complex sqrt( float _Complex x ) { return csqrtf( x ); } 123 static inline double _Complex sqrt( double _Complex x ) { return csqrt( x ); } 124 static inline long double _Complex sqrt( long double _Complex x ) { return csqrtl( x ); } 125 126 static inline float cbrt( float x ) { return cbrtf( x ); } 127 // extern "C" { double cbrt( double ); } 128 static inline long double cbrt( long double x ) { return cbrtl( x ); } 129 130 static inline float hypot( float x, float y ) { return hypotf( x, y ); } 131 // extern "C" { double hypot( double, double ); } 132 static inline long double hypot( long double x, long double y ) { return hypotl( x, y ); } 94 static inline { 95 float log( float x ) { return logf( x ); } 96 // extern "C" { double log( double ); } 97 long double log( long double x ) { return logl( x ); } 98 float _Complex log( float _Complex x ) { return clogf( x ); } 99 double _Complex log( double _Complex x ) { return clog( x ); } 100 long double _Complex log( long double _Complex x ) { return clogl( x ); } 101 102 float log2( float x ) { return log2f( x ); } 103 // extern "C" { double log2( double ); } 104 long double log2( long double x ) { return log2l( x ); } 105 // float _Complex log2( float _Complex x ) { return clog2f( x ); } 106 // double _Complex log2( double _Complex x ) { return clog2( x ); } 107 // long double _Complex log2( long double _Complex x ) { return clog2l( x ); } 108 109 float log10( float x ) { return log10f( x ); } 110 // extern "C" { double log10( double ); } 111 long double log10( long double x ) { return log10l( x ); } 112 // float _Complex log10( float _Complex x ) { return clog10f( x ); } 113 // double _Complex log10( double _Complex x ) { return clog10( x ); } 114 // long double _Complex log10( long double _Complex x ) { return clog10l( x ); } 115 116 float log1p( float x ) { return log1pf( x ); } 117 // extern "C" { double log1p( double ); } 118 long double log1p( long double x ) { return log1pl( x ); } 119 120 int ilogb( float x ) { return ilogbf( x ); } 121 // extern "C" { int ilogb( double ); } 122 int ilogb( long double x ) { return ilogbl( x ); } 123 124 float logb( float x ) { return logbf( x ); } 125 // extern "C" { double logb( double ); } 126 long double logb( long double x ) { return logbl( x ); } 127 128 float sqrt( float x ) { return sqrtf( x ); } 129 // extern "C" { double sqrt( double ); } 130 long double sqrt( long double x ) { return sqrtl( x ); } 131 float _Complex sqrt( float _Complex x ) { return csqrtf( x ); } 132 double _Complex sqrt( double _Complex x ) { return csqrt( x ); } 133 long double _Complex sqrt( long double _Complex x ) { return csqrtl( x ); } 134 135 float cbrt( float x ) { return cbrtf( x ); } 136 // extern "C" { double cbrt( double ); } 137 long double cbrt( long double x ) { return cbrtl( x ); } 138 139 float hypot( float x, float y ) { return hypotf( x, y ); } 140 // extern "C" { double hypot( double, double ); } 141 long double hypot( long double x, long double y ) { return hypotl( x, y ); } 142 } // distribution 133 143 134 144 //---------------------- Trigonometric ---------------------- 135 145 136 static inline float sin( float x ) { return sinf( x ); } 137 // extern "C" { double sin( double ); } 138 static inline long double sin( long double x ) { return sinl( x ); } 139 static inline float _Complex sin( float _Complex x ) { return csinf( x ); } 140 static inline double _Complex sin( double _Complex x ) { return csin( x ); } 141 static inline long double _Complex sin( long double _Complex x ) { return csinl( x ); } 142 143 static inline float cos( float x ) { return cosf( x ); } 144 // extern "C" { double cos( double ); } 145 static inline long double cos( long double x ) { return cosl( x ); } 146 static inline float _Complex cos( float _Complex x ) { return ccosf( x ); } 147 static inline double _Complex cos( double _Complex x ) { return ccos( x ); } 148 static inline long double _Complex cos( long double _Complex x ) { return ccosl( x ); } 149 150 static inline float tan( float x ) { return tanf( x ); } 151 // extern "C" { double tan( double ); } 152 static inline long double tan( long double x ) { return tanl( x ); } 153 static inline float _Complex tan( float _Complex x ) { return ctanf( x ); } 154 static inline double _Complex tan( double _Complex x ) { return ctan( x ); } 155 static inline long double _Complex tan( long double _Complex x ) { return ctanl( x ); } 156 157 static inline float asin( float x ) { return asinf( x ); } 158 // extern "C" { double asin( double ); } 159 static inline long double asin( long double x ) { return asinl( x ); } 160 static inline float _Complex asin( float _Complex x ) { return casinf( x ); } 161 static inline double _Complex asin( double _Complex x ) { return casin( x ); } 162 static inline long double _Complex asin( long double _Complex x ) { return casinl( x ); } 163 164 static inline float acos( float x ) { return acosf( x ); } 165 // extern "C" { double acos( double ); } 166 static inline long double acos( long double x ) { return acosl( x ); } 167 static inline float _Complex acos( float _Complex x ) { return cacosf( x ); } 168 static inline double _Complex acos( double _Complex x ) { return cacos( x ); } 169 static inline long double _Complex acos( long double _Complex x ) { return cacosl( x ); } 170 171 static inline float atan( float x ) { return atanf( x ); } 172 // extern "C" { double atan( double ); } 173 static inline long double atan( long double x ) { return atanl( x ); } 174 static inline float _Complex atan( float _Complex x ) { return catanf( x ); } 175 static inline double _Complex atan( double _Complex x ) { return catan( x ); } 176 static inline long double _Complex atan( long double _Complex x ) { return catanl( x ); } 177 178 static inline float atan2( float x, float y ) { return atan2f( x, y ); } 179 // extern "C" { double atan2( double, double ); } 180 static inline long double atan2( long double x, long double y ) { return atan2l( x, y ); } 181 182 // alternative name for atan2 183 static inline float atan( float x, float y ) { return atan2f( x, y ); } 184 static inline double atan( double x, double y ) { return atan2( x, y ); } 185 static inline long double atan( long double x, long double y ) { return atan2l( x, y ); } 146 static inline { 147 float sin( float x ) { return sinf( x ); } 148 // extern "C" { double sin( double ); } 149 long double sin( long double x ) { return sinl( x ); } 150 float _Complex sin( float _Complex x ) { return csinf( x ); } 151 double _Complex sin( double _Complex x ) { return csin( x ); } 152 long double _Complex sin( long double _Complex x ) { return csinl( x ); } 153 154 float cos( float x ) { return cosf( x ); } 155 // extern "C" { double cos( double ); } 156 long double cos( long double x ) { return cosl( x ); } 157 float _Complex cos( float _Complex x ) { return ccosf( x ); } 158 double _Complex cos( double _Complex x ) { return ccos( x ); } 159 long double _Complex cos( long double _Complex x ) { return ccosl( x ); } 160 161 float tan( float x ) { return tanf( x ); } 162 // extern "C" { double tan( double ); } 163 long double tan( long double x ) { return tanl( x ); } 164 float _Complex tan( float _Complex x ) { return ctanf( x ); } 165 double _Complex tan( double _Complex x ) { return ctan( x ); } 166 long double _Complex tan( long double _Complex x ) { return ctanl( x ); } 167 168 float asin( float x ) { return asinf( x ); } 169 // extern "C" { double asin( double ); } 170 long double asin( long double x ) { return asinl( x ); } 171 float _Complex asin( float _Complex x ) { return casinf( x ); } 172 double _Complex asin( double _Complex x ) { return casin( x ); } 173 long double _Complex asin( long double _Complex x ) { return casinl( x ); } 174 175 float acos( float x ) { return acosf( x ); } 176 // extern "C" { double acos( double ); } 177 long double acos( long double x ) { return acosl( x ); } 178 float _Complex acos( float _Complex x ) { return cacosf( x ); } 179 double _Complex acos( double _Complex x ) { return cacos( x ); } 180 long double _Complex acos( long double _Complex x ) { return cacosl( x ); } 181 182 float atan( float x ) { return atanf( x ); } 183 // extern "C" { double atan( double ); } 184 long double atan( long double x ) { return atanl( x ); } 185 float _Complex atan( float _Complex x ) { return catanf( x ); } 186 double _Complex atan( double _Complex x ) { return catan( x ); } 187 long double _Complex atan( long double _Complex x ) { return catanl( x ); } 188 189 float atan2( float x, float y ) { return atan2f( x, y ); } 190 // extern "C" { double atan2( double, double ); } 191 long double atan2( long double x, long double y ) { return atan2l( x, y ); } 192 193 // alternative name for atan2 194 float atan( float x, float y ) { return atan2f( x, y ); } 195 double atan( double x, double y ) { return atan2( x, y ); } 196 long double atan( long double x, long double y ) { return atan2l( x, y ); } 197 } // distribution 186 198 187 199 //---------------------- Hyperbolic ---------------------- 188 200 189 static inline float sinh( float x ) { return sinhf( x ); } 190 // extern "C" { double sinh( double ); } 191 static inline long double sinh( long double x ) { return sinhl( x ); } 192 static inline float _Complex sinh( float _Complex x ) { return csinhf( x ); } 193 static inline double _Complex sinh( double _Complex x ) { return csinh( x ); } 194 static inline long double _Complex sinh( long double _Complex x ) { return csinhl( x ); } 195 196 static inline float cosh( float x ) { return coshf( x ); } 197 // extern "C" { double cosh( double ); } 198 static inline long double cosh( long double x ) { return coshl( x ); } 199 static inline float _Complex cosh( float _Complex x ) { return ccoshf( x ); } 200 static inline double _Complex cosh( double _Complex x ) { return ccosh( x ); } 201 static inline long double _Complex cosh( long double _Complex x ) { return ccoshl( x ); } 202 203 static inline float tanh( float x ) { return tanhf( x ); } 204 // extern "C" { double tanh( double ); } 205 static inline long double tanh( long double x ) { return tanhl( x ); } 206 static inline float _Complex tanh( float _Complex x ) { return ctanhf( x ); } 207 static inline double _Complex tanh( double _Complex x ) { return ctanh( x ); } 208 static inline long double _Complex tanh( long double _Complex x ) { return ctanhl( x ); } 209 210 static inline float asinh( float x ) { return asinhf( x ); } 211 // extern "C" { double asinh( double ); } 212 static inline long double asinh( long double x ) { return asinhl( x ); } 213 static inline float _Complex asinh( float _Complex x ) { return casinhf( x ); } 214 static inline double _Complex asinh( double _Complex x ) { return casinh( x ); } 215 static inline long double _Complex asinh( long double _Complex x ) { return casinhl( x ); } 216 217 static inline float acosh( float x ) { return acoshf( x ); } 218 // extern "C" { double acosh( double ); } 219 static inline long double acosh( long double x ) { return acoshl( x ); } 220 static inline float _Complex acosh( float _Complex x ) { return cacoshf( x ); } 221 static inline double _Complex acosh( double _Complex x ) { return cacosh( x ); } 222 static inline long double _Complex acosh( long double _Complex x ) { return cacoshl( x ); } 223 224 static inline float atanh( float x ) { return atanhf( x ); } 225 // extern "C" { double atanh( double ); } 226 static inline long double atanh( long double x ) { return atanhl( x ); } 227 static inline float _Complex atanh( float _Complex x ) { return catanhf( x ); } 228 static inline double _Complex atanh( double _Complex x ) { return catanh( x ); } 229 static inline long double _Complex atanh( long double _Complex x ) { return catanhl( x ); } 201 static inline { 202 float sinh( float x ) { return sinhf( x ); } 203 // extern "C" { double sinh( double ); } 204 long double sinh( long double x ) { return sinhl( x ); } 205 float _Complex sinh( float _Complex x ) { return csinhf( x ); } 206 double _Complex sinh( double _Complex x ) { return csinh( x ); } 207 long double _Complex sinh( long double _Complex x ) { return csinhl( x ); } 208 209 float cosh( float x ) { return coshf( x ); } 210 // extern "C" { double cosh( double ); } 211 long double cosh( long double x ) { return coshl( x ); } 212 float _Complex cosh( float _Complex x ) { return ccoshf( x ); } 213 double _Complex cosh( double _Complex x ) { return ccosh( x ); } 214 long double _Complex cosh( long double _Complex x ) { return ccoshl( x ); } 215 216 float tanh( float x ) { return tanhf( x ); } 217 // extern "C" { double tanh( double ); } 218 long double tanh( long double x ) { return tanhl( x ); } 219 float _Complex tanh( float _Complex x ) { return ctanhf( x ); } 220 double _Complex tanh( double _Complex x ) { return ctanh( x ); } 221 long double _Complex tanh( long double _Complex x ) { return ctanhl( x ); } 222 223 float asinh( float x ) { return asinhf( x ); } 224 // extern "C" { double asinh( double ); } 225 long double asinh( long double x ) { return asinhl( x ); } 226 float _Complex asinh( float _Complex x ) { return casinhf( x ); } 227 double _Complex asinh( double _Complex x ) { return casinh( x ); } 228 long double _Complex asinh( long double _Complex x ) { return casinhl( x ); } 229 230 float acosh( float x ) { return acoshf( x ); } 231 // extern "C" { double acosh( double ); } 232 long double acosh( long double x ) { return acoshl( x ); } 233 float _Complex acosh( float _Complex x ) { return cacoshf( x ); } 234 double _Complex acosh( double _Complex x ) { return cacosh( x ); } 235 long double _Complex acosh( long double _Complex x ) { return cacoshl( x ); } 236 237 float atanh( float x ) { return atanhf( x ); } 238 // extern "C" { double atanh( double ); } 239 long double atanh( long double x ) { return atanhl( x ); } 240 float _Complex atanh( float _Complex x ) { return catanhf( x ); } 241 double _Complex atanh( double _Complex x ) { return catanh( x ); } 242 long double _Complex atanh( long double _Complex x ) { return catanhl( x ); } 243 } // distribution 230 244 231 245 //---------------------- Error / Gamma ---------------------- 232 246 233 static inline float erf( float x ) { return erff( x ); } 234 // extern "C" { double erf( double ); } 235 static inline long double erf( long double x ) { return erfl( x ); } 236 // float _Complex erf( float _Complex ); 237 // double _Complex erf( double _Complex ); 238 // long double _Complex erf( long double _Complex ); 239 240 static inline float erfc( float x ) { return erfcf( x ); } 241 // extern "C" { double erfc( double ); } 242 static inline long double erfc( long double x ) { return erfcl( x ); } 243 // float _Complex erfc( float _Complex ); 244 // double _Complex erfc( double _Complex ); 245 // long double _Complex erfc( long double _Complex ); 246 247 static inline float lgamma( float x ) { return lgammaf( x ); } 248 // extern "C" { double lgamma( double ); } 249 static inline long double lgamma( long double x ) { return lgammal( x ); } 250 static inline float lgamma( float x, int * sign ) { return lgammaf_r( x, sign ); } 251 static inline double lgamma( double x, int * sign ) { return lgamma_r( x, sign ); } 252 static inline long double lgamma( long double x, int * sign ) { return lgammal_r( x, sign ); } 253 254 static inline float tgamma( float x ) { return tgammaf( x ); } 255 // extern "C" { double tgamma( double ); } 256 static inline long double tgamma( long double x ) { return tgammal( x ); } 247 static inline { 248 float erf( float x ) { return erff( x ); } 249 // extern "C" { double erf( double ); } 250 long double erf( long double x ) { return erfl( x ); } 251 // float _Complex erf( float _Complex ); 252 // double _Complex erf( double _Complex ); 253 // long double _Complex erf( long double _Complex ); 254 255 float erfc( float x ) { return erfcf( x ); } 256 // extern "C" { double erfc( double ); } 257 long double erfc( long double x ) { return erfcl( x ); } 258 // float _Complex erfc( float _Complex ); 259 // double _Complex erfc( double _Complex ); 260 // long double _Complex erfc( long double _Complex ); 261 262 float lgamma( float x ) { return lgammaf( x ); } 263 // extern "C" { double lgamma( double ); } 264 long double lgamma( long double x ) { return lgammal( x ); } 265 float lgamma( float x, int * sign ) { return lgammaf_r( x, sign ); } 266 double lgamma( double x, int * sign ) { return lgamma_r( x, sign ); } 267 long double lgamma( long double x, int * sign ) { return lgammal_r( x, sign ); } 268 269 float tgamma( float x ) { return tgammaf( x ); } 270 // extern "C" { double tgamma( double ); } 271 long double tgamma( long double x ) { return tgammal( x ); } 272 } // distribution 257 273 258 274 //---------------------- Nearest Integer ---------------------- 259 275 260 static inline float floor( float x ) { return floorf( x ); } 261 // extern "C" { double floor( double ); } 262 static inline long double floor( long double x ) { return floorl( x ); } 263 264 static inline float ceil( float x ) { return ceilf( x ); } 265 // extern "C" { double ceil( double ); } 266 static inline long double ceil( long double x ) { return ceill( x ); } 267 268 static inline float trunc( float x ) { return truncf( x ); } 269 // extern "C" { double trunc( double ); } 270 static inline long double trunc( long double x ) { return truncl( x ); } 271 272 static inline float rint( float x ) { return rintf( x ); } 273 // extern "C" { double rint( double x ); } 274 static inline long double rint( long double x ) { return rintl( x ); } 275 static inline long int rint( float x ) { return lrintf( x ); } 276 static inline long int rint( double x ) { return lrint( x ); } 277 static inline long int rint( long double x ) { return lrintl( x ); } 278 static inline long long int rint( float x ) { return llrintf( x ); } 279 static inline long long int rint( double x ) { return llrint( x ); } 280 static inline long long int rint( long double x ) { return llrintl( x ); } 281 282 static inline long int lrint( float x ) { return lrintf( x ); } 283 // extern "C" { long int lrint( double ); } 284 static inline long int lrint( long double x ) { return lrintl( x ); } 285 static inline long long int llrint( float x ) { return llrintf( x ); } 286 // extern "C" { long long int llrint( double ); } 287 static inline long long int llrint( long double x ) { return llrintl( x ); } 288 289 static inline float nearbyint( float x ) { return nearbyintf( x ); } 290 // extern "C" { double nearbyint( double ); } 291 static inline long double nearbyint( long double x ) { return nearbyintl( x ); } 292 293 static inline float round( float x ) { return roundf( x ); } 294 // extern "C" { double round( double x ); } 295 static inline long double round( long double x ) { return roundl( x ); } 296 static inline long int round( float x ) { return lroundf( x ); } 297 static inline long int round( double x ) { return lround( x ); } 298 static inline long int round( long double x ) { return lroundl( x ); } 299 static inline long long int round( float x ) { return llroundf( x ); } 300 static inline long long int round( double x ) { return llround( x ); } 301 static inline long long int round( long double x ) { return llroundl( x ); } 302 303 static inline long int lround( float x ) { return lroundf( x ); } 304 // extern "C" { long int lround( double ); } 305 static inline long int lround( long double x ) { return lroundl( x ); } 306 static inline long long int llround( float x ) { return llroundf( x ); } 307 // extern "C" { long long int llround( double ); } 308 static inline long long int llround( long double x ) { return llroundl( x ); } 276 static inline { 277 signed char floor( signed char n, signed char align ) { return n / align * align; } 278 unsigned char floor( unsigned char n, unsigned char align ) { return n / align * align; } 279 short int floor( short int n, short int align ) { return n / align * align; } 280 unsigned short int floor( unsigned short int n, unsigned short int align ) { return n / align * align; } 281 int floor( int n, int align ) { return n / align * align; } 282 unsigned int floor( unsigned int n, unsigned int align ) { return n / align * align; } 283 long int floor( long int n, long int align ) { return n / align * align; } 284 unsigned long int floor( unsigned long int n, unsigned long int align ) { return n / align * align; } 285 long long int floor( long long int n, long long int align ) { return n / align * align; } 286 unsigned long long int floor( unsigned long long int n, unsigned long long int align ) { return n / align * align; } 287 288 // forall( otype T | { T ?/?( T, T ); T ?*?( T, T ); } ) 289 // T floor( T n, T align ) { return n / align * align; } 290 291 signed char ceiling_div( signed char n, char align ) { return (n + (align - 1)) / align; } 292 unsigned char ceiling_div( unsigned char n, unsigned char align ) { return (n + (align - 1)) / align; } 293 short int ceiling_div( short int n, short int align ) { return (n + (align - 1)) / align; } 294 unsigned short int ceiling_div( unsigned short int n, unsigned short int align ) { return (n + (align - 1)) / align; } 295 int ceiling_div( int n, int align ) { return (n + (align - 1)) / align; } 296 unsigned int ceiling_div( unsigned int n, unsigned int align ) { return (n + (align - 1)) / align; } 297 long int ceiling_div( long int n, long int align ) { return (n + (align - 1)) / align; } 298 unsigned long int ceiling_div( unsigned long int n, unsigned long int align ) { return (n + (align - 1)) / align; } 299 long long int ceiling_div( long long int n, long long int align ) { return (n + (align - 1)) / align; } 300 unsigned long long int ceiling_div( unsigned long long int n, unsigned long long int align ) { return (n + (align - 1)) / align; } 301 302 // forall( otype T | { T ?+?( T, T ); T ?-?( T, T ); T ?%?( T, T ); } ) 303 // T ceiling_div( T n, T align ) { verify( is_pow2( align ) );return (n + (align - 1)) / align; } 304 305 // gcc notices the div/mod pair and saves both so only one div. 306 signed char ceiling( signed char n, signed char align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 307 unsigned char ceiling( unsigned char n, unsigned char align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 308 short int ceiling( short int n, short int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 309 unsigned short int ceiling( unsigned short int n, unsigned short int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 310 int ceiling( int n, int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 311 unsigned int ceiling( unsigned int n, unsigned int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 312 long int ceiling( long int n, long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 313 unsigned long int ceiling( unsigned long int n, unsigned long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0) , align); } 314 long long int ceiling( long long int n, long long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 315 unsigned long long int ceiling( unsigned long long int n, unsigned long long int align ) { return floor( n + (n % align != 0 ? align - 1 : 0), align ); } 316 317 // forall( otype T | { void ?{}( T &, one_t ); T ?+?( T, T ); T ?-?( T, T ); T ?/?( T, T ); } ) 318 // T ceiling( T n, T align ) { return return floor( n + (n % align != 0 ? align - 1 : 0), align ); *} 319 320 float floor( float x ) { return floorf( x ); } 321 // extern "C" { double floor( double ); } 322 long double floor( long double x ) { return floorl( x ); } 323 324 float ceil( float x ) { return ceilf( x ); } 325 // extern "C" { double ceil( double ); } 326 long double ceil( long double x ) { return ceill( x ); } 327 328 float trunc( float x ) { return truncf( x ); } 329 // extern "C" { double trunc( double ); } 330 long double trunc( long double x ) { return truncl( x ); } 331 332 float rint( float x ) { return rintf( x ); } 333 // extern "C" { double rint( double x ); } 334 long double rint( long double x ) { return rintl( x ); } 335 long int rint( float x ) { return lrintf( x ); } 336 long int rint( double x ) { return lrint( x ); } 337 long int rint( long double x ) { return lrintl( x ); } 338 long long int rint( float x ) { return llrintf( x ); } 339 long long int rint( double x ) { return llrint( x ); } 340 long long int rint( long double x ) { return llrintl( x ); } 341 342 long int lrint( float x ) { return lrintf( x ); } 343 // extern "C" { long int lrint( double ); } 344 long int lrint( long double x ) { return lrintl( x ); } 345 long long int llrint( float x ) { return llrintf( x ); } 346 // extern "C" { long long int llrint( double ); } 347 long long int llrint( long double x ) { return llrintl( x ); } 348 349 float nearbyint( float x ) { return nearbyintf( x ); } 350 // extern "C" { double nearbyint( double ); } 351 long double nearbyint( long double x ) { return nearbyintl( x ); } 352 353 float round( float x ) { return roundf( x ); } 354 // extern "C" { double round( double x ); } 355 long double round( long double x ) { return roundl( x ); } 356 long int round( float x ) { return lroundf( x ); } 357 long int round( double x ) { return lround( x ); } 358 long int round( long double x ) { return lroundl( x ); } 359 long long int round( float x ) { return llroundf( x ); } 360 long long int round( double x ) { return llround( x ); } 361 long long int round( long double x ) { return llroundl( x ); } 362 363 long int lround( float x ) { return lroundf( x ); } 364 // extern "C" { long int lround( double ); } 365 long int lround( long double x ) { return lroundl( x ); } 366 long long int llround( float x ) { return llroundf( x ); } 367 // extern "C" { long long int llround( double ); } 368 long long int llround( long double x ) { return llroundl( x ); } 369 } // distribution 309 370 310 371 //---------------------- Manipulation ---------------------- 311 372 312 static inline float copysign( float x, float y ) { return copysignf( x, y ); } 313 // extern "C" { double copysign( double, double ); } 314 static inline long double copysign( long double x, long double y ) { return copysignl( x, y ); } 315 316 static inline float frexp( float x, int * ip ) { return frexpf( x, ip ); } 317 // extern "C" { double frexp( double, int * ); } 318 static inline long double frexp( long double x, int * ip ) { return frexpl( x, ip ); } 319 320 static inline float ldexp( float x, int exp2 ) { return ldexpf( x, exp2 ); } 321 // extern "C" { double ldexp( double, int ); } 322 static inline long double ldexp( long double x, int exp2 ) { return ldexpl( x, exp2 ); } 323 324 static inline [ float, float ] modf( float x ) { float i; x = modff( x, &i ); return [ i, x ]; } 325 static inline float modf( float x, float * i ) { return modff( x, i ); } 326 static inline [ double, double ] modf( double x ) { double i; x = modf( x, &i ); return [ i, x ]; } 327 // extern "C" { double modf( double, double * ); } 328 static inline [ long double, long double ] modf( long double x ) { long double i; x = modfl( x, &i ); return [ i, x ]; } 329 static inline long double modf( long double x, long double * i ) { return modfl( x, i ); } 330 331 static inline float nextafter( float x, float y ) { return nextafterf( x, y ); } 332 // extern "C" { double nextafter( double, double ); } 333 static inline long double nextafter( long double x, long double y ) { return nextafterl( x, y ); } 334 335 static inline float nexttoward( float x, long double y ) { return nexttowardf( x, y ); } 336 // extern "C" { double nexttoward( double, long double ); } 337 static inline long double nexttoward( long double x, long double y ) { return nexttowardl( x, y ); } 338 339 static inline float scalbn( float x, int exp ) { return scalbnf( x, exp ); } 340 // extern "C" { double scalbn( double, int ); } 341 static inline long double scalbn( long double x, int exp ) { return scalbnl( x, exp ); } 342 static inline float scalbn( float x, long int exp ) { return scalblnf( x, exp ); } 343 static inline double scalbn( double x, long int exp ) { return scalbln( x, exp ); } 344 static inline long double scalbn( long double x, long int exp ) { return scalblnl( x, exp ); } 345 346 static inline float scalbln( float x, long int exp ) { return scalblnf( x, exp ); } 347 // extern "C" { double scalbln( double, long int ); } 348 static inline long double scalbln( long double x, long int exp ) { return scalblnl( x, exp ); } 373 static inline { 374 float copysign( float x, float y ) { return copysignf( x, y ); } 375 // extern "C" { double copysign( double, double ); } 376 long double copysign( long double x, long double y ) { return copysignl( x, y ); } 377 378 float frexp( float x, int * ip ) { return frexpf( x, ip ); } 379 // extern "C" { double frexp( double, int * ); } 380 long double frexp( long double x, int * ip ) { return frexpl( x, ip ); } 381 382 float ldexp( float x, int exp2 ) { return ldexpf( x, exp2 ); } 383 // extern "C" { double ldexp( double, int ); } 384 long double ldexp( long double x, int exp2 ) { return ldexpl( x, exp2 ); } 385 386 [ float, float ] modf( float x ) { float i; x = modff( x, &i ); return [ i, x ]; } 387 float modf( float x, float * i ) { return modff( x, i ); } 388 [ double, double ] modf( double x ) { double i; x = modf( x, &i ); return [ i, x ]; } 389 // extern "C" { double modf( double, double * ); } 390 [ long double, long double ] modf( long double x ) { long double i; x = modfl( x, &i ); return [ i, x ]; } 391 long double modf( long double x, long double * i ) { return modfl( x, i ); } 392 393 float nextafter( float x, float y ) { return nextafterf( x, y ); } 394 // extern "C" { double nextafter( double, double ); } 395 long double nextafter( long double x, long double y ) { return nextafterl( x, y ); } 396 397 float nexttoward( float x, long double y ) { return nexttowardf( x, y ); } 398 // extern "C" { double nexttoward( double, long double ); } 399 long double nexttoward( long double x, long double y ) { return nexttowardl( x, y ); } 400 401 float scalbn( float x, int exp ) { return scalbnf( x, exp ); } 402 // extern "C" { double scalbn( double, int ); } 403 long double scalbn( long double x, int exp ) { return scalbnl( x, exp ); } 404 float scalbn( float x, long int exp ) { return scalblnf( x, exp ); } 405 double scalbn( double x, long int exp ) { return scalbln( x, exp ); } 406 long double scalbn( long double x, long int exp ) { return scalblnl( x, exp ); } 407 408 float scalbln( float x, long int exp ) { return scalblnf( x, exp ); } 409 // extern "C" { double scalbln( double, long int ); } 410 long double scalbln( long double x, long int exp ) { return scalblnl( x, exp ); } 411 } // distribution 349 412 350 413 //--------------------------------------- 351 414 352 #include "common.hfa" 353 354 //--------------------------------------- 355 356 forall( otype T | { void ?{}( T &, one_t ); T ?+?( T, T ); T ?-?( T, T );T ?*?( T, T ); } ) 357 T lerp( T x, T y, T a ) { return x * ((T){1} - a) + y * a; } 358 359 forall( otype T | { void ?{}( T &, zero_t ); void ?{}( T &, one_t ); int ?<?( T, T ); } ) 360 T step( T edge, T x ) { return x < edge ? (T){0} : (T){1}; } 361 362 forall( otype T | { void ?{}( T &, int ); T clamp( T, T, T ); T ?-?( T, T ); T ?*?( T, T ); T ?/?( T, T ); } ) 363 T smoothstep( T edge0, T edge1, T x ) { T t = clamp( (x - edge0) / (edge1 - edge0), (T){0}, (T){1} ); return t * t * ((T){3} - (T){2} * t); } 415 static inline { 416 forall( otype T | { void ?{}( T &, one_t ); T ?+?( T, T ); T ?-?( T, T );T ?*?( T, T ); } ) 417 T lerp( T x, T y, T a ) { return x * ((T){1} - a) + y * a; } 418 419 forall( otype T | { void ?{}( T &, zero_t ); void ?{}( T &, one_t ); int ?<?( T, T ); } ) 420 T step( T edge, T x ) { return x < edge ? (T){0} : (T){1}; } 421 422 forall( otype T | { void ?{}( T &, int ); T clamp( T, T, T ); T ?-?( T, T ); T ?*?( T, T ); T ?/?( T, T ); } ) 423 T smoothstep( T edge0, T edge1, T x ) { T t = clamp( (x - edge0) / (edge1 - edge0), (T){0}, (T){1} ); return t * t * ((T){3} - (T){2} * t); } 424 } // distribution 364 425 365 426 // Local Variables: // -
libcfa/src/stdlib.hfa
rb7fe2e6 r856dff8 114 114 } // distribution 115 115 116 /* 117 FIX ME : fix alloc interface after Ticker Number 214 is resolved, define and add union to S_fill. Then, modify postfix-fill functions to support T * with nmemb, char, and T object of any size. Finally, change alloc_internal. 118 Or, just follow the instructions below for that. 119 120 1. Replace the current forall-block that contains defintions of S_fill and S_realloc with following: 121 forall( dtype T | sized(T) ) { 122 union U_fill { char c; T * a; T t; }; 123 struct S_fill { char tag; char c; size_t size; T * at; char t[50]; }; 124 struct S_realloc { inline T *; }; 125 } 126 127 2. Replace all current postfix-fill functions with following for updated S_fill: 128 S_fill(T) ?`fill( char a ) { S_fill(T) ret = {'c'}; ret.fill.c = a; return ret; } 129 S_fill(T) ?`fill( T a ) { S_fill(T) ret = {'t'}; memcpy(&ret.fill.t, &a, sizeof(T)); return ret; } 130 S_fill(T) ?`fill( T a[], size_t nmemb ) { S_fill(T) ret = {'a', nmemb}; ret.fill.a = a; return ret; } 131 132 3. Replace the $alloc_internal function which is outside ttype forall-block with following function: 133 T * $alloc_internal( void * Resize, T * Realloc, size_t Align, size_t Dim, S_fill(T) Fill) { 134 T * ptr = NULL; 135 size_t size = sizeof(T); 136 size_t copy_end = 0; 137 138 if(Resize) { 139 ptr = (T*) (void *) resize( (int *)Resize, Align, Dim * size ); 140 } else if (Realloc) { 141 if (Fill.tag != '0') copy_end = min(malloc_size( Realloc ), Dim * size); 142 ptr = (T*) (void *) realloc( (int *)Realloc, Align, Dim * size ); 143 } else { 144 ptr = (T*) (void *) memalign( Align, Dim * size ); 145 } 146 147 if(Fill.tag == 'c') { 148 memset( (char *)ptr + copy_end, (int)Fill.fill.c, Dim * size - copy_end ); 149 } else if(Fill.tag == 't') { 150 for ( int i = copy_end; i <= Dim * size - size ; i += size ) { 151 memcpy( (char *)ptr + i, &Fill.fill.t, size ); 152 } 153 } else if(Fill.tag == 'a') { 154 memcpy( (char *)ptr + copy_end, Fill.fill.a, min(Dim * size - copy_end, size * Fill.nmemb) ); 155 } 156 157 return ptr; 158 } // $alloc_internal 159 */ 160 161 typedef struct S_align { inline size_t; } T_align; 162 typedef struct S_resize { inline void *; } T_resize; 163 164 forall( dtype T ) { 165 struct S_fill { char tag; char c; size_t size; T * at; char t[50]; }; 166 struct S_realloc { inline T *; }; 167 } 168 169 static inline T_align ?`align ( size_t a ) { return (T_align){a}; } 170 static inline T_resize ?`resize ( void * a ) { return (T_resize){a}; } 116 171 static inline forall( dtype T | sized(T) ) { 117 // Cforall safe general allocation, fill, resize, array 118 119 T * alloc( void ) { 120 return malloc(); 121 } // alloc 122 123 T * alloc( size_t dim ) { 124 return aalloc( dim ); 125 } // alloc 126 127 forall( dtype S | sized(S) ) 128 T * alloc( S ptr[], size_t dim = 1 ) { // singleton/array resize 129 return resize( (T *)ptr, dim * sizeof(T) ); // CFA resize 130 } // alloc 131 132 T * alloc( T ptr[], size_t dim = 1, bool copy = true ) { 133 if ( copy ) { 134 return realloc( ptr, dim * sizeof(T) ); // CFA realloc 172 173 S_fill(T) ?`fill ( T t ) { 174 S_fill(T) ret = { 't' }; 175 size_t size = sizeof(T); 176 if(size > sizeof(ret.t)) { printf("ERROR: const object of size greater than 50 bytes given for dynamic memory fill\n"); exit(1); } 177 memcpy( &ret.t, &t, size ); 178 return ret; 179 } 180 S_fill(T) ?`fill ( char c ) { return (S_fill(T)){ 'c', c }; } 181 S_fill(T) ?`fill ( T * a ) { return (S_fill(T)){ 'T', '0', 0, a }; } 182 S_fill(T) ?`fill ( T a[], size_t nmemb ) { return (S_fill(T)){ 'a', '0', nmemb * sizeof(T), a }; } 183 184 S_realloc(T) ?`realloc ( T * a ) { return (S_realloc(T)){a}; } 185 186 T * $alloc_internal( void * Resize, T * Realloc, size_t Align, size_t Dim, S_fill(T) Fill) { 187 T * ptr = NULL; 188 size_t size = sizeof(T); 189 size_t copy_end = 0; 190 191 if(Resize) { 192 ptr = (T*) (void *) resize( (int *)Resize, Align, Dim * size ); 193 } else if (Realloc) { 194 if (Fill.tag != '0') copy_end = min(malloc_size( Realloc ), Dim * size); 195 ptr = (T*) (void *) realloc( (int *)Realloc, Align, Dim * size ); 135 196 } else { 136 return resize( ptr, dim * sizeof(T) ); // CFA resize 137 } // if 138 } // alloc 139 140 T * alloc_set( char fill ) { 141 return (T *)memset( (T *)alloc(), (int)fill, sizeof(T) ); // initialize with fill value 142 } // alloc_set 143 144 T * alloc_set( const T & fill ) { 145 return (T *)memcpy( (T *)alloc(), &fill, sizeof(T) ); // initialize with fill value 146 } // alloc_set 147 148 T * alloc_set( size_t dim, char fill ) { 149 return (T *)memset( (T *)alloc( dim ), (int)fill, dim * sizeof(T) ); // initialize with fill value 150 } // alloc_set 151 152 T * alloc_set( size_t dim, const T & fill ) { 153 T * r = (T *)alloc( dim ); 154 for ( i; dim ) { memcpy( &r[i], &fill, sizeof(T) ); } // initialize with fill value 155 return r; 156 } // alloc_set 157 158 T * alloc_set( size_t dimNew, const T fill[], size_t dimOld ) { 159 return (T *)memcpy( (T *)alloc( dimNew ), fill, min( dimNew, dimOld ) * sizeof(T) ); // initialize with fill value 160 } // alloc_set 161 162 T * alloc_set( T ptr[], size_t dim, char fill ) { // realloc array with fill 163 size_t osize = malloc_size( ptr ); // current allocation 164 size_t nsize = dim * sizeof(T); // new allocation 165 T * nptr = realloc( ptr, nsize ); // CFA realloc 166 if ( nsize > osize ) { // larger ? 167 memset( (char *)nptr + osize, (int)fill, nsize - osize ); // initialize added storage 168 } // if 169 return nptr; 170 } // alloc_set 171 172 T * alloc_set( T ptr[], size_t dim, const T & fill ) { // realloc array with fill 173 size_t odim = malloc_size( ptr ) / sizeof(T); // current dimension 174 size_t nsize = dim * sizeof(T); // new allocation 175 size_t ndim = nsize / sizeof(T); // new dimension 176 T * nptr = realloc( ptr, nsize ); // CFA realloc 177 if ( ndim > odim ) { // larger ? 178 for ( i; odim ~ ndim ) { 179 memcpy( &nptr[i], &fill, sizeof(T) ); // initialize with fill value 180 } // for 181 } // if 182 return nptr; 183 } // alloc_set 184 } // distribution 185 186 static inline forall( dtype T | sized(T) ) { 187 T * alloc_align( size_t align ) { 188 return (T *)memalign( align, sizeof(T) ); 189 } // alloc_align 190 191 T * alloc_align( size_t align, size_t dim ) { 192 return (T *)memalign( align, dim * sizeof(T) ); 193 } // alloc_align 194 195 T * alloc_align( T * ptr, size_t align ) { // aligned realloc array 196 return (T *)(void *)realloc( (void *)ptr, align, sizeof(T) ); // CFA C realloc 197 } // alloc_align 198 199 forall( dtype S | sized(S) ) 200 T * alloc_align( S ptr[], size_t align ) { // aligned reuse array 201 return (T *)(void *)resize( (void *)ptr, align, sizeof(T) ); // CFA realloc 202 } // alloc_align 203 204 T * alloc_align( T ptr[], size_t align, size_t dim ) { // aligned realloc array 205 return (T *)(void *)realloc( (void *)ptr, align, dim * sizeof(T) ); // CFA realloc 206 } // alloc_align 207 208 T * alloc_align_set( size_t align, char fill ) { 209 return (T *)memset( (T *)alloc_align( align ), (int)fill, sizeof(T) ); // initialize with fill value 210 } // alloc_align_set 211 212 T * alloc_align_set( size_t align, const T & fill ) { 213 return (T *)memcpy( (T *)alloc_align( align ), &fill, sizeof(T) ); // initialize with fill value 214 } // alloc_align_set 215 216 T * alloc_align_set( size_t align, size_t dim, char fill ) { 217 return (T *)memset( (T *)alloc_align( align, dim ), (int)fill, dim * sizeof(T) ); // initialize with fill value 218 } // alloc_align_set 219 220 T * alloc_align_set( size_t align, size_t dim, const T & fill ) { 221 T * r = (T *)alloc_align( align, dim ); 222 for ( i; dim ) { memcpy( &r[i], &fill, sizeof(T) ); } // initialize with fill value 223 return r; 224 } // alloc_align_set 225 226 T * alloc_align_set( size_t align, size_t dimNew, const T fill[], size_t dimOld ) { 227 return (T *)memcpy( (T *)alloc_align( align, dimNew ), fill, min( dimNew, dimOld ) * sizeof(T) ); 228 } // alloc_align_set 229 230 T * alloc_align_set( T ptr[], size_t align, size_t dim, char fill ) { 231 size_t osize = malloc_size( ptr ); // current allocation 232 size_t nsize = dim * sizeof(T); // new allocation 233 T * nptr = alloc_align( ptr, align, nsize ); 234 if ( nsize > osize ) { // larger ? 235 memset( (char *)nptr + osize, (int)fill, nsize - osize ); // initialize added storage 236 } // if 237 return nptr; 238 } // alloc_align_set 239 240 T * alloc_align_set( T ptr[], size_t align, size_t dim, const T & fill ) { 241 size_t odim = malloc_size( ptr ) / sizeof(T); // current dimension 242 size_t nsize = dim * sizeof(T); // new allocation 243 size_t ndim = nsize / sizeof(T); // new dimension 244 T * nptr = alloc_align( ptr, align, nsize ); 245 if ( ndim > odim ) { // larger ? 246 for ( i; odim ~ ndim ) { 247 memcpy( &nptr[i], &fill, sizeof(T) ); // initialize with fill value 248 } // for 249 } // if 250 return nptr; 251 } // alloc_align_set 252 } // distribution 197 ptr = (T*) (void *) memalign( Align, Dim * size ); 198 } 199 200 if(Fill.tag == 'c') { 201 memset( (char *)ptr + copy_end, (int)Fill.c, Dim * size - copy_end ); 202 } else if(Fill.tag == 't') { 203 for ( int i = copy_end; i <= Dim * size - size ; i += size ) { 204 memcpy( (char *)ptr + i, &Fill.t, size ); 205 } 206 } else if(Fill.tag == 'a') { 207 memcpy( (char *)ptr + copy_end, Fill.at, min(Dim * size - copy_end, Fill.size) ); 208 } else if(Fill.tag == 'T') { 209 for ( int i = copy_end; i <= Dim * size - size ; i += size ) { 210 memcpy( (char *)ptr + i, Fill.at, size ); 211 } 212 } 213 214 return ptr; 215 } // $alloc_internal 216 217 forall( ttype TT | { T * $alloc_internal( void *, T *, size_t, size_t, S_fill(T), TT ); } ) { 218 219 T * $alloc_internal( void * , T * Realloc, size_t Align, size_t Dim, S_fill(T) Fill, T_resize Resize, TT rest) { 220 return $alloc_internal( Resize, (T*)0p, Align, Dim, Fill, rest); 221 } 222 223 T * $alloc_internal( void * Resize, T * , size_t Align, size_t Dim, S_fill(T) Fill, S_realloc(T) Realloc, TT rest) { 224 return $alloc_internal( (void*)0p, Realloc, Align, Dim, Fill, rest); 225 } 226 227 T * $alloc_internal( void * Resize, T * Realloc, size_t , size_t Dim, S_fill(T) Fill, T_align Align, TT rest) { 228 return $alloc_internal( Resize, Realloc, Align, Dim, Fill, rest); 229 } 230 231 T * $alloc_internal( void * Resize, T * Realloc, size_t Align, size_t Dim, S_fill(T) , S_fill(T) Fill, TT rest) { 232 return $alloc_internal( Resize, Realloc, Align, Dim, Fill, rest); 233 } 234 235 T * alloc( TT all ) { 236 return $alloc_internal( (void*)0p, (T*)0p, (_Alignof(T) > libAlign() ? _Alignof(T) : libAlign()), (size_t)1, (S_fill(T)){'0'}, all); 237 } 238 239 T * alloc( size_t dim, TT all ) { 240 return $alloc_internal( (void*)0p, (T*)0p, (_Alignof(T) > libAlign() ? _Alignof(T) : libAlign()), dim, (S_fill(T)){'0'}, all); 241 } 242 243 } // distribution TT 244 245 } // distribution T 253 246 254 247 static inline forall( dtype T | sized(T) ) {
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