[ViewVC] Diff of: cvs/libev/ev.c

Comparing libev/ev.c (file contents):
Revision 1.158 by root, Thu Nov 29 17:28:13 2007 UTC vs.
Revision 1.206 by root, Fri Jan 25 15:45:08 2008 UTC

…		…
2	* libev event processing core, watcher management	2	* libev event processing core, watcher management
3	*	3	*
4	* Copyright (c) 2007 Marc Alexander Lehmann <libev@schmorp.de>	4	* Copyright (c) 2007 Marc Alexander Lehmann <libev@schmorp.de>
5	* All rights reserved.	5	* All rights reserved.
6	*	6	*
7	* Redistribution and use in source and binary forms, with or without	7	* Redistribution and use in source and binary forms, with or without modifica-
8	* modification, are permitted provided that the following conditions are	8	* tion, are permitted provided that the following conditions are met:
9	* met:	9	*
		10	* 1. Redistributions of source code must retain the above copyright notice,
		11	* this list of conditions and the following disclaimer.
		12	*
		13	* 2. Redistributions in binary form must reproduce the above copyright
		14	* notice, this list of conditions and the following disclaimer in the
		15	* documentation and/or other materials provided with the distribution.
		16	*
		17	* THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR IMPLIED
		18	* WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MER-
		19	* CHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO
		20	* EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPE-
		21	* CIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
		22	* PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS;
		23	* OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
		24	* WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTH-
		25	* ERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED
		26	* OF THE POSSIBILITY OF SUCH DAMAGE.
10	*	27	*
11	* * Redistributions of source code must retain the above copyright	28	* Alternatively, the contents of this file may be used under the terms of
12	* notice, this list of conditions and the following disclaimer.	29	* the GNU General Public License ("GPL") version 2 or any later version,
13	*	30	* in which case the provisions of the GPL are applicable instead of
14	* * Redistributions in binary form must reproduce the above	31	* the above. If you wish to allow the use of your version of this file
15	* copyright notice, this list of conditions and the following	32	* only under the terms of the GPL and not to allow others to use your
16	* disclaimer in the documentation and/or other materials provided	33	* version of this file under the BSD license, indicate your decision
17	* with the distribution.	34	* by deleting the provisions above and replace them with the notice
18	*	35	* and other provisions required by the GPL. If you do not delete the
19	* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS	36	* provisions above, a recipient may use your version of this file under
20	* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT	37	* either the BSD or the GPL.
21	* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
22	* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
23	* OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
24	* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
25	* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
26	* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
27	* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
28	* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
29	* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
30	*/	38	*/
31		39
32	#ifdef __cplusplus	40	#ifdef __cplusplus
33	extern "C" {	41	extern "C" {
34	#endif	42	#endif
…		…
51	# ifndef EV_USE_MONOTONIC	59	# ifndef EV_USE_MONOTONIC
52	# define EV_USE_MONOTONIC 0	60	# define EV_USE_MONOTONIC 0
53	# endif	61	# endif
54	# ifndef EV_USE_REALTIME	62	# ifndef EV_USE_REALTIME
55	# define EV_USE_REALTIME 0	63	# define EV_USE_REALTIME 0
		64	# endif
		65	# endif
		66
		67	# ifndef EV_USE_NANOSLEEP
		68	# if HAVE_NANOSLEEP
		69	# define EV_USE_NANOSLEEP 1
		70	# else
		71	# define EV_USE_NANOSLEEP 0
56	# endif	72	# endif
57	# endif	73	# endif
58		74
59	# ifndef EV_USE_SELECT	75	# ifndef EV_USE_SELECT
60	# if HAVE_SELECT && HAVE_SYS_SELECT_H	76	# if HAVE_SELECT && HAVE_SYS_SELECT_H
…		…
146		162
147	#ifndef EV_USE_REALTIME	163	#ifndef EV_USE_REALTIME
148	# define EV_USE_REALTIME 0	164	# define EV_USE_REALTIME 0
149	#endif	165	#endif
150		166
		167	#ifndef EV_USE_NANOSLEEP
		168	# define EV_USE_NANOSLEEP 0
		169	#endif
		170
151	#ifndef EV_USE_SELECT	171	#ifndef EV_USE_SELECT
152	# define EV_USE_SELECT 1	172	# define EV_USE_SELECT 1
153	#endif	173	#endif
154		174
155	#ifndef EV_USE_POLL	175	#ifndef EV_USE_POLL
…		…
202	#ifndef CLOCK_REALTIME	222	#ifndef CLOCK_REALTIME
203	# undef EV_USE_REALTIME	223	# undef EV_USE_REALTIME
204	# define EV_USE_REALTIME 0	224	# define EV_USE_REALTIME 0
205	#endif	225	#endif
206		226
		227	#if !EV_STAT_ENABLE
		228	# undef EV_USE_INOTIFY
		229	# define EV_USE_INOTIFY 0
		230	#endif
		231
		232	#if !EV_USE_NANOSLEEP
		233	# ifndef _WIN32
		234	# include <sys/select.h>
		235	# endif
		236	#endif
		237
		238	#if EV_USE_INOTIFY
		239	# include <sys/inotify.h>
		240	#endif
		241
207	#if EV_SELECT_IS_WINSOCKET	242	#if EV_SELECT_IS_WINSOCKET
208	# include <winsock.h>	243	# include <winsock.h>
209	#endif	244	#endif
210		245
211	#if !EV_STAT_ENABLE
212	# define EV_USE_INOTIFY 0
213	#endif
214
215	#if EV_USE_INOTIFY
216	# include <sys/inotify.h>
217	#endif
218
219	/**/	246	/**/
		247
		248	/*
		249	* This is used to avoid floating point rounding problems.
		250	* It is added to ev_rt_now when scheduling periodics
		251	* to ensure progress, time-wise, even when rounding
		252	* errors are against us.
		253	* This value is good at least till the year 4000.
		254	* Better solutions welcome.
		255	*/
		256	#define TIME_EPSILON 0.0001220703125 /* 1/8192 */
220		257
221	#define MIN_TIMEJUMP 1. /* minimum timejump that gets detected (if monotonic clock available) */	258	#define MIN_TIMEJUMP 1. /* minimum timejump that gets detected (if monotonic clock available) */
222	#define MAX_BLOCKTIME 59.743 /* never wait longer than this time (to detect time jumps) */	259	#define MAX_BLOCKTIME 59.743 /* never wait longer than this time (to detect time jumps) */
223	/#define CLEANUP_INTERVAL (MAX_BLOCKTIME 5.) /* how often to try to free memory and re-check fds */	260	/#define CLEANUP_INTERVAL (MAX_BLOCKTIME 5.) /* how often to try to free memory and re-check fds, TODO */
224		261
225	#if __GNUC__ >= 3	262	#if __GNUC__ >= 4
226	# define expect(expr,value) __builtin_expect ((expr),(value))	263	# define expect(expr,value) __builtin_expect ((expr),(value))
227	# define inline_size static inline /* inline for codesize */
228	# if EV_MINIMAL
229	# define noinline __attribute__ ((noinline))	264	# define noinline __attribute__ ((noinline))
230	# define inline_speed static noinline
231	# else
232	# define noinline
233	# define inline_speed static inline
234	# endif
235	#else	265	#else
236	# define expect(expr,value) (expr)	266	# define expect(expr,value) (expr)
237	# define inline_speed static
238	# define inline_size static
239	# define noinline	267	# define noinline
		268	# if __STDC_VERSION__ < 199901L
		269	# define inline
		270	# endif
240	#endif	271	#endif
241		272
242	#define expect_false(expr) expect ((expr) != 0, 0)	273	#define expect_false(expr) expect ((expr) != 0, 0)
243	#define expect_true(expr) expect ((expr) != 0, 1)	274	#define expect_true(expr) expect ((expr) != 0, 1)
		275	#define inline_size static inline
		276
		277	#if EV_MINIMAL
		278	# define inline_speed static noinline
		279	#else
		280	# define inline_speed static inline
		281	#endif
244		282
245	#define NUMPRI (EV_MAXPRI - EV_MINPRI + 1)	283	#define NUMPRI (EV_MAXPRI - EV_MINPRI + 1)
246	#define ABSPRI(w) ((w)->priority - EV_MINPRI)	284	#define ABSPRI(w) (((W)w)->priority - EV_MINPRI)
247		285
248	#define EMPTY0 /* required for microsofts broken pseudo-c compiler */	286	#define EMPTY /* required for microsofts broken pseudo-c compiler */
249	#define EMPTY2(a,b) /* used to suppress some warnings */	287	#define EMPTY2(a,b) /* used to suppress some warnings */
250		288
251	typedef ev_watcher *W;	289	typedef ev_watcher *W;
252	typedef ev_watcher_list *WL;	290	typedef ev_watcher_list *WL;
253	typedef ev_watcher_time *WT;	291	typedef ev_watcher_time *WT;
254		292
		293	#if EV_USE_MONOTONIC
		294	/* sig_atomic_t is used to avoid per-thread variables or locking but still */
		295	/* giving it a reasonably high chance of working on typical architetcures */
255	static int have_monotonic; /* did clock_gettime (CLOCK_MONOTONIC) work? */	296	static sig_atomic_t have_monotonic; /* did clock_gettime (CLOCK_MONOTONIC) work? */
		297	#endif
256		298
257	#ifdef _WIN32	299	#ifdef _WIN32
258	# include "ev_win32.c"	300	# include "ev_win32.c"
259	#endif	301	#endif
260		302
…		…
396	{	438	{
397	return ev_rt_now;	439	return ev_rt_now;
398	}	440	}
399	#endif	441	#endif
400		442
401	#define array_roundsize(type,n) (((n) \| 4) & ~3)	443	void
		444	ev_sleep (ev_tstamp delay)
		445	{
		446	if (delay > 0.)
		447	{
		448	#if EV_USE_NANOSLEEP
		449	struct timespec ts;
		450
		451	ts.tv_sec = (time_t)delay;
		452	ts.tv_nsec = (long)((delay - (ev_tstamp)(ts.tv_sec)) * 1e9);
		453
		454	nanosleep (&ts, 0);
		455	#elif defined(_WIN32)
		456	Sleep (delay * 1e3);
		457	#else
		458	struct timeval tv;
		459
		460	tv.tv_sec = (time_t)delay;
		461	tv.tv_usec = (long)((delay - (ev_tstamp)(tv.tv_sec)) * 1e6);
		462
		463	select (0, 0, 0, 0, &tv);
		464	#endif
		465	}
		466	}
		467
		468	/*****************************************************************************/
		469
		470	int inline_size
		471	array_nextsize (int elem, int cur, int cnt)
		472	{
		473	int ncur = cur + 1;
		474
		475	do
		476	ncur <<= 1;
		477	while (cnt > ncur);
		478
		479	/* if size > 4096, round to 4096 - 4 * longs to accomodate malloc overhead */
		480	if (elem * ncur > 4096)
		481	{
		482	ncur *= elem;
		483	ncur = (ncur + elem + 4095 + sizeof (void ) 4) & ~4095;
		484	ncur = ncur - sizeof (void ) 4;
		485	ncur /= elem;
		486	}
		487
		488	return ncur;
		489	}
		490
		491	static noinline void *
		492	array_realloc (int elem, void base, int cur, int cnt)
		493	{
		494	cur = array_nextsize (elem, cur, cnt);
		495	return ev_realloc (base, elem * *cur);
		496	}
402		497
403	#define array_needsize(type,base,cur,cnt,init) \	498	#define array_needsize(type,base,cur,cnt,init) \
404	if (expect_false ((cnt) > cur)) \	499	if (expect_false ((cnt) > (cur))) \
405	{ \	500	{ \
406	int newcnt = cur; \	501	int ocur_ = (cur); \
407	do \	502	(base) = (type *)array_realloc \
408	{ \	503	(sizeof (type), (base), &(cur), (cnt)); \
409	newcnt = array_roundsize (type, newcnt << 1); \	504	init ((base) + (ocur_), (cur) - ocur_); \
410	} \
411	while ((cnt) > newcnt); \
412	\
413	base = (type )ev_realloc (base, sizeof (type) (newcnt));\
414	init (base + cur, newcnt - cur); \
415	cur = newcnt; \
416	}	505	}
417		506
		507	#if 0
418	#define array_slim(type,stem) \	508	#define array_slim(type,stem) \
419	if (stem ## max < array_roundsize (stem ## cnt >> 2)) \	509	if (stem ## max < array_roundsize (stem ## cnt >> 2)) \
420	{ \	510	{ \
421	stem ## max = array_roundsize (stem ## cnt >> 1); \	511	stem ## max = array_roundsize (stem ## cnt >> 1); \
422	base = (type )ev_realloc (base, sizeof (type) (stem ## max));\	512	base = (type )ev_realloc (base, sizeof (type) (stem ## max));\
423	fprintf (stderr, "slimmed down " # stem " to %d\n", stem ## max);/D/\	513	fprintf (stderr, "slimmed down " # stem " to %d\n", stem ## max);/D/\
424	}	514	}
		515	#endif
425		516
426	#define array_free(stem, idx) \	517	#define array_free(stem, idx) \
427	ev_free (stem ## s idx); stem ## cnt idx = stem ## max idx = 0;	518	ev_free (stem ## s idx); stem ## cnt idx = stem ## max idx = 0;
428		519
429	/*****************************************************************************/	520	/*****************************************************************************/
430		521
431	void noinline	522	void noinline
432	ev_feed_event (EV_P_ void *w, int revents)	523	ev_feed_event (EV_P_ void *w, int revents)
433	{	524	{
434	W w_ = (W)w;	525	W w_ = (W)w;
		526	int pri = ABSPRI (w_);
435		527
436	if (expect_false (w_->pending))	528	if (expect_false (w_->pending))
		529	pendings [pri][w_->pending - 1].events \|= revents;
		530	else
437	{	531	{
		532	w_->pending = ++pendingcnt [pri];
		533	array_needsize (ANPENDING, pendings [pri], pendingmax [pri], w_->pending, EMPTY2);
		534	pendings [pri][w_->pending - 1].w = w_;
438	pendings [ABSPRI (w_)][w_->pending - 1].events \|= revents;	535	pendings [pri][w_->pending - 1].events = revents;
439	return;
440	}	536	}
441
442	w_->pending = ++pendingcnt [ABSPRI (w_)];
443	array_needsize (ANPENDING, pendings [ABSPRI (w_)], pendingmax [ABSPRI (w_)], pendingcnt [ABSPRI (w_)], EMPTY2);
444	pendings [ABSPRI (w_)][w_->pending - 1].w = w_;
445	pendings [ABSPRI (w_)][w_->pending - 1].events = revents;
446	}	537	}
447		538
448	void inline_size	539	void inline_speed
449	queue_events (EV_P_ W *events, int eventcnt, int type)	540	queue_events (EV_P_ W *events, int eventcnt, int type)
450	{	541	{
451	int i;	542	int i;
452		543
453	for (i = 0; i < eventcnt; ++i)	544	for (i = 0; i < eventcnt; ++i)
…		…
485	}	576	}
486		577
487	void	578	void
488	ev_feed_fd_event (EV_P_ int fd, int revents)	579	ev_feed_fd_event (EV_P_ int fd, int revents)
489	{	580	{
		581	if (fd >= 0 && fd < anfdmax)
490	fd_event (EV_A_ fd, revents);	582	fd_event (EV_A_ fd, revents);
491	}	583	}
492		584
493	void inline_size	585	void inline_size
494	fd_reify (EV_P)	586	fd_reify (EV_P)
495	{	587	{
…		…
499	{	591	{
500	int fd = fdchanges [i];	592	int fd = fdchanges [i];
501	ANFD *anfd = anfds + fd;	593	ANFD *anfd = anfds + fd;
502	ev_io *w;	594	ev_io *w;
503		595
504	int events = 0;	596	unsigned char events = 0;
505		597
506	for (w = (ev_io )anfd->head; w; w = (ev_io )((WL)w)->next)	598	for (w = (ev_io )anfd->head; w; w = (ev_io )((WL)w)->next)
507	events \|= w->events;	599	events \|= (unsigned char)w->events;
508		600
509	#if EV_SELECT_IS_WINSOCKET	601	#if EV_SELECT_IS_WINSOCKET
510	if (events)	602	if (events)
511	{	603	{
512	unsigned long argp;	604	unsigned long argp;
		605	#ifdef EV_FD_TO_WIN32_HANDLE
		606	anfd->handle = EV_FD_TO_WIN32_HANDLE (fd);
		607	#else
513	anfd->handle = _get_osfhandle (fd);	608	anfd->handle = _get_osfhandle (fd);
		609	#endif
514	assert (("libev only supports socket fds in this configuration", ioctlsocket (anfd->handle, FIONREAD, &argp) == 0));	610	assert (("libev only supports socket fds in this configuration", ioctlsocket (anfd->handle, FIONREAD, &argp) == 0));
515	}	611	}
516	#endif	612	#endif
517		613
		614	{
		615	unsigned char o_events = anfd->events;
		616	unsigned char o_reify = anfd->reify;
		617
518	anfd->reify = 0;	618	anfd->reify = 0;
519
520	backend_modify (EV_A_ fd, anfd->events, events);
521	anfd->events = events;	619	anfd->events = events;
		620
		621	if (o_events != events \|\| o_reify & EV_IOFDSET)
		622	backend_modify (EV_A_ fd, o_events, events);
		623	}
522	}	624	}
523		625
524	fdchangecnt = 0;	626	fdchangecnt = 0;
525	}	627	}
526		628
527	void inline_size	629	void inline_size
528	fd_change (EV_P_ int fd)	630	fd_change (EV_P_ int fd, int flags)
529	{	631	{
530	if (expect_false (anfds [fd].reify))	632	unsigned char reify = anfds [fd].reify;
531	return;
532
533	anfds [fd].reify = 1;	633	anfds [fd].reify \|= flags;
534		634
		635	if (expect_true (!reify))
		636	{
535	++fdchangecnt;	637	++fdchangecnt;
536	array_needsize (int, fdchanges, fdchangemax, fdchangecnt, EMPTY2);	638	array_needsize (int, fdchanges, fdchangemax, fdchangecnt, EMPTY2);
537	fdchanges [fdchangecnt - 1] = fd;	639	fdchanges [fdchangecnt - 1] = fd;
		640	}
538	}	641	}
539		642
540	void inline_speed	643	void inline_speed
541	fd_kill (EV_P_ int fd)	644	fd_kill (EV_P_ int fd)
542	{	645	{
…		…
593		696
594	for (fd = 0; fd < anfdmax; ++fd)	697	for (fd = 0; fd < anfdmax; ++fd)
595	if (anfds [fd].events)	698	if (anfds [fd].events)
596	{	699	{
597	anfds [fd].events = 0;	700	anfds [fd].events = 0;
598	fd_change (EV_A_ fd);	701	fd_change (EV_A_ fd, EV_IOFDSET \| 1);
599	}	702	}
600	}	703	}
601		704
602	/*****************************************************************************/	705	/*****************************************************************************/
603		706
604	void inline_speed	707	void inline_speed
605	upheap (WT *heap, int k)	708	upheap (WT *heap, int k)
606	{	709	{
607	WT w = heap [k];	710	WT w = heap [k];
608		711
609	while (k && heap [k >> 1]->at > w->at)	712	while (k)
610	{	713	{
		714	int p = (k - 1) >> 1;
		715
		716	if (heap [p]->at <= w->at)
		717	break;
		718
611	heap [k] = heap [k >> 1];	719	heap [k] = heap [p];
612	((W)heap [k])->active = k + 1;	720	((W)heap [k])->active = k + 1;
613	k >>= 1;	721	k = p;
614	}	722	}
615		723
616	heap [k] = w;	724	heap [k] = w;
617	((W)heap [k])->active = k + 1;	725	((W)heap [k])->active = k + 1;
618
619	}	726	}
620		727
621	void inline_speed	728	void inline_speed
622	downheap (WT *heap, int N, int k)	729	downheap (WT *heap, int N, int k)
623	{	730	{
624	WT w = heap [k];	731	WT w = heap [k];
625		732
626	while (k < (N >> 1))	733	for (;;)
627	{	734	{
628	int j = k << 1;	735	int c = (k << 1) + 1;
629		736
630	if (j + 1 < N && heap [j]->at > heap [j + 1]->at)	737	if (c >= N)
631	++j;
632
633	if (w->at <= heap [j]->at)
634	break;	738	break;
635		739
		740	c += c + 1 < N && heap [c]->at > heap [c + 1]->at
		741	? 1 : 0;
		742
		743	if (w->at <= heap [c]->at)
		744	break;
		745
636	heap [k] = heap [j];	746	heap [k] = heap [c];
637	((W)heap [k])->active = k + 1;	747	((W)heap [k])->active = k + 1;
		748
638	k = j;	749	k = c;
639	}	750	}
640		751
641	heap [k] = w;	752	heap [k] = w;
642	((W)heap [k])->active = k + 1;	753	((W)heap [k])->active = k + 1;
643	}	754	}
…		…
725	for (signum = signalmax; signum--; )	836	for (signum = signalmax; signum--; )
726	if (signals [signum].gotsig)	837	if (signals [signum].gotsig)
727	ev_feed_signal_event (EV_A_ signum + 1);	838	ev_feed_signal_event (EV_A_ signum + 1);
728	}	839	}
729		840
730	void inline_size	841	void inline_speed
731	fd_intern (int fd)	842	fd_intern (int fd)
732	{	843	{
733	#ifdef _WIN32	844	#ifdef _WIN32
734	int arg = 1;	845	int arg = 1;
735	ioctlsocket (_get_osfhandle (fd), FIONBIO, &arg);	846	ioctlsocket (_get_osfhandle (fd), FIONBIO, &arg);
…		…
750	ev_unref (EV_A); /* child watcher should not keep loop alive */	861	ev_unref (EV_A); /* child watcher should not keep loop alive */
751	}	862	}
752		863
753	/*****************************************************************************/	864	/*****************************************************************************/
754		865
755	static ev_child *childs [EV_PID_HASHSIZE];	866	static WL childs [EV_PID_HASHSIZE];
756		867
757	#ifndef _WIN32	868	#ifndef _WIN32
758		869
759	static ev_signal childev;	870	static ev_signal childev;
		871
		872	#ifndef WIFCONTINUED
		873	# define WIFCONTINUED(status) 0
		874	#endif
760		875
761	void inline_speed	876	void inline_speed
762	child_reap (EV_P_ ev_signal *sw, int chain, int pid, int status)	877	child_reap (EV_P_ ev_signal *sw, int chain, int pid, int status)
763	{	878	{
764	ev_child *w;	879	ev_child *w;
		880	int traced = WIFSTOPPED (status) \|\| WIFCONTINUED (status);
765		881
766	for (w = (ev_child )childs [chain & (EV_PID_HASHSIZE - 1)]; w; w = (ev_child )((WL)w)->next)	882	for (w = (ev_child )childs [chain & (EV_PID_HASHSIZE - 1)]; w; w = (ev_child )((WL)w)->next)
		883	{
767	if (w->pid == pid \|\| !w->pid)	884	if ((w->pid == pid \|\| !w->pid)
		885	&& (!traced \|\| (w->flags & 1)))
768	{	886	{
769	ev_priority (w) = ev_priority (sw); /* need to do it now */	887	ev_set_priority (w, ev_priority (sw)); /* need to do it now */
770	w->rpid = pid;	888	w->rpid = pid;
771	w->rstatus = status;	889	w->rstatus = status;
772	ev_feed_event (EV_A_ (W)w, EV_CHILD);	890	ev_feed_event (EV_A_ (W)w, EV_CHILD);
773	}	891	}
		892	}
774	}	893	}
775		894
776	#ifndef WCONTINUED	895	#ifndef WCONTINUED
777	# define WCONTINUED 0	896	# define WCONTINUED 0
778	#endif	897	#endif
…		…
875	}	994	}
876		995
877	unsigned int	996	unsigned int
878	ev_embeddable_backends (void)	997	ev_embeddable_backends (void)
879	{	998	{
880	return EVBACKEND_EPOLL	999	int flags = EVBACKEND_EPOLL \| EVBACKEND_KQUEUE \| EVBACKEND_PORT;
881	\| EVBACKEND_KQUEUE	1000
882	\| EVBACKEND_PORT;	1001	/* epoll embeddability broken on all linux versions up to at least 2.6.23 */
		1002	/* please fix it and tell me how to detect the fix */
		1003	flags &= ~EVBACKEND_EPOLL;
		1004
		1005	return flags;
883	}	1006	}
884		1007
885	unsigned int	1008	unsigned int
886	ev_backend (EV_P)	1009	ev_backend (EV_P)
887	{	1010	{
888	return backend;	1011	return backend;
		1012	}
		1013
		1014	unsigned int
		1015	ev_loop_count (EV_P)
		1016	{
		1017	return loop_count;
		1018	}
		1019
		1020	void
		1021	ev_set_io_collect_interval (EV_P_ ev_tstamp interval)
		1022	{
		1023	io_blocktime = interval;
		1024	}
		1025
		1026	void
		1027	ev_set_timeout_collect_interval (EV_P_ ev_tstamp interval)
		1028	{
		1029	timeout_blocktime = interval;
889	}	1030	}
890		1031
891	static void noinline	1032	static void noinline
892	loop_init (EV_P_ unsigned int flags)	1033	loop_init (EV_P_ unsigned int flags)
893	{	1034	{
…		…
904	ev_rt_now = ev_time ();	1045	ev_rt_now = ev_time ();
905	mn_now = get_clock ();	1046	mn_now = get_clock ();
906	now_floor = mn_now;	1047	now_floor = mn_now;
907	rtmn_diff = ev_rt_now - mn_now;	1048	rtmn_diff = ev_rt_now - mn_now;
908		1049
		1050	io_blocktime = 0.;
		1051	timeout_blocktime = 0.;
		1052
909	/* pid check not overridable via env */	1053	/* pid check not overridable via env */
910	#ifndef _WIN32	1054	#ifndef _WIN32
911	if (flags & EVFLAG_FORKCHECK)	1055	if (flags & EVFLAG_FORKCHECK)
912	curpid = getpid ();	1056	curpid = getpid ();
913	#endif	1057	#endif
…		…
975	#if EV_USE_SELECT	1119	#if EV_USE_SELECT
976	if (backend == EVBACKEND_SELECT) select_destroy (EV_A);	1120	if (backend == EVBACKEND_SELECT) select_destroy (EV_A);
977	#endif	1121	#endif
978		1122
979	for (i = NUMPRI; i--; )	1123	for (i = NUMPRI; i--; )
		1124	{
980	array_free (pending, [i]);	1125	array_free (pending, [i]);
		1126	#if EV_IDLE_ENABLE
		1127	array_free (idle, [i]);
		1128	#endif
		1129	}
		1130
		1131	ev_free (anfds); anfdmax = 0;
981		1132
982	/* have to use the microsoft-never-gets-it-right macro */	1133	/* have to use the microsoft-never-gets-it-right macro */
983	array_free (fdchange, EMPTY0);	1134	array_free (fdchange, EMPTY);
984	array_free (timer, EMPTY0);	1135	array_free (timer, EMPTY);
985	#if EV_PERIODIC_ENABLE	1136	#if EV_PERIODIC_ENABLE
986	array_free (periodic, EMPTY0);	1137	array_free (periodic, EMPTY);
987	#endif	1138	#endif
		1139	#if EV_FORK_ENABLE
988	array_free (idle, EMPTY0);	1140	array_free (fork, EMPTY);
		1141	#endif
989	array_free (prepare, EMPTY0);	1142	array_free (prepare, EMPTY);
990	array_free (check, EMPTY0);	1143	array_free (check, EMPTY);
991		1144
992	backend = 0;	1145	backend = 0;
993	}	1146	}
994		1147
995	void inline_size infy_fork (EV_P);	1148	void inline_size infy_fork (EV_P);
…		…
1021		1174
1022	while (pipe (sigpipe))	1175	while (pipe (sigpipe))
1023	syserr ("(libev) error creating pipe");	1176	syserr ("(libev) error creating pipe");
1024		1177
1025	siginit (EV_A);	1178	siginit (EV_A);
		1179	sigcb (EV_A_ &sigev, EV_READ);
1026	}	1180	}
1027		1181
1028	postfork = 0;	1182	postfork = 0;
1029	}	1183	}
1030		1184
…		…
1052	}	1206	}
1053		1207
1054	void	1208	void
1055	ev_loop_fork (EV_P)	1209	ev_loop_fork (EV_P)
1056	{	1210	{
1057	postfork = 1;	1211	postfork = 1; /* must be in line with ev_default_fork */
1058	}	1212	}
1059		1213
1060	#endif	1214	#endif
1061		1215
1062	#if EV_MULTIPLICITY	1216	#if EV_MULTIPLICITY
…		…
1126	#if EV_MULTIPLICITY	1280	#if EV_MULTIPLICITY
1127	struct ev_loop *loop = ev_default_loop_ptr;	1281	struct ev_loop *loop = ev_default_loop_ptr;
1128	#endif	1282	#endif
1129		1283
1130	if (backend)	1284	if (backend)
1131	postfork = 1;	1285	postfork = 1; /* must be in line with ev_loop_fork */
1132	}	1286	}
1133		1287
1134	/*****************************************************************************/	1288	/*****************************************************************************/
1135		1289
1136	int inline_size	1290	void
1137	any_pending (EV_P)	1291	ev_invoke (EV_P_ void *w, int revents)
1138	{	1292	{
1139	int pri;	1293	EV_CB_INVOKE ((W)w, revents);
1140
1141	for (pri = NUMPRI; pri--; )
1142	if (pendingcnt [pri])
1143	return 1;
1144
1145	return 0;
1146	}	1294	}
1147		1295
1148	void inline_speed	1296	void inline_speed
1149	call_pending (EV_P)	1297	call_pending (EV_P)
1150	{	1298	{
…		…
1168	void inline_size	1316	void inline_size
1169	timers_reify (EV_P)	1317	timers_reify (EV_P)
1170	{	1318	{
1171	while (timercnt && ((WT)timers [0])->at <= mn_now)	1319	while (timercnt && ((WT)timers [0])->at <= mn_now)
1172	{	1320	{
1173	ev_timer *w = timers [0];	1321	ev_timer w = (ev_timer )timers [0];
1174		1322
1175	/assert (("inactive timer on timer heap detected", ev_is_active (w)));/	1323	/assert (("inactive timer on timer heap detected", ev_is_active (w)));/
1176		1324
1177	/* first reschedule or stop timer */	1325	/* first reschedule or stop timer */
1178	if (w->repeat)	1326	if (w->repeat)
…		…
1181		1329
1182	((WT)w)->at += w->repeat;	1330	((WT)w)->at += w->repeat;
1183	if (((WT)w)->at < mn_now)	1331	if (((WT)w)->at < mn_now)
1184	((WT)w)->at = mn_now;	1332	((WT)w)->at = mn_now;
1185		1333
1186	downheap ((WT *)timers, timercnt, 0);	1334	downheap (timers, timercnt, 0);
1187	}	1335	}
1188	else	1336	else
1189	ev_timer_stop (EV_A_ w); /* nonrepeating: stop timer */	1337	ev_timer_stop (EV_A_ w); /* nonrepeating: stop timer */
1190		1338
1191	ev_feed_event (EV_A_ (W)w, EV_TIMEOUT);	1339	ev_feed_event (EV_A_ (W)w, EV_TIMEOUT);
…		…
1196	void inline_size	1344	void inline_size
1197	periodics_reify (EV_P)	1345	periodics_reify (EV_P)
1198	{	1346	{
1199	while (periodiccnt && ((WT)periodics [0])->at <= ev_rt_now)	1347	while (periodiccnt && ((WT)periodics [0])->at <= ev_rt_now)
1200	{	1348	{
1201	ev_periodic *w = periodics [0];	1349	ev_periodic w = (ev_periodic )periodics [0];
1202		1350
1203	/assert (("inactive timer on periodic heap detected", ev_is_active (w)));/	1351	/assert (("inactive timer on periodic heap detected", ev_is_active (w)));/
1204		1352
1205	/* first reschedule or stop timer */	1353	/* first reschedule or stop timer */
1206	if (w->reschedule_cb)	1354	if (w->reschedule_cb)
1207	{	1355	{
1208	((WT)w)->at = w->reschedule_cb (w, ev_rt_now + 0.0001);	1356	((WT)w)->at = w->reschedule_cb (w, ev_rt_now + TIME_EPSILON);
1209	assert (("ev_periodic reschedule callback returned time in the past", ((WT)w)->at > ev_rt_now));	1357	assert (("ev_periodic reschedule callback returned time in the past", ((WT)w)->at > ev_rt_now));
1210	downheap ((WT *)periodics, periodiccnt, 0);	1358	downheap (periodics, periodiccnt, 0);
1211	}	1359	}
1212	else if (w->interval)	1360	else if (w->interval)
1213	{	1361	{
1214	((WT)w)->at += floor ((ev_rt_now - ((WT)w)->at) / w->interval + 1.) * w->interval;	1362	((WT)w)->at = w->offset + ceil ((ev_rt_now - w->offset) / w->interval) * w->interval;
		1363	if (((WT)w)->at - ev_rt_now <= TIME_EPSILON) ((WT)w)->at += w->interval;
1215	assert (("ev_periodic timeout in the past detected while processing timers, negative interval?", ((WT)w)->at > ev_rt_now));	1364	assert (("ev_periodic timeout in the past detected while processing timers, negative interval?", ((WT)w)->at > ev_rt_now));
1216	downheap ((WT *)periodics, periodiccnt, 0);	1365	downheap (periodics, periodiccnt, 0);
1217	}	1366	}
1218	else	1367	else
1219	ev_periodic_stop (EV_A_ w); /* nonrepeating: stop timer */	1368	ev_periodic_stop (EV_A_ w); /* nonrepeating: stop timer */
1220		1369
1221	ev_feed_event (EV_A_ (W)w, EV_PERIODIC);	1370	ev_feed_event (EV_A_ (W)w, EV_PERIODIC);
…		…
1228	int i;	1377	int i;
1229		1378
1230	/* adjust periodics after time jump */	1379	/* adjust periodics after time jump */
1231	for (i = 0; i < periodiccnt; ++i)	1380	for (i = 0; i < periodiccnt; ++i)
1232	{	1381	{
1233	ev_periodic *w = periodics [i];	1382	ev_periodic w = (ev_periodic )periodics [i];
1234		1383
1235	if (w->reschedule_cb)	1384	if (w->reschedule_cb)
1236	((WT)w)->at = w->reschedule_cb (w, ev_rt_now);	1385	((WT)w)->at = w->reschedule_cb (w, ev_rt_now);
1237	else if (w->interval)	1386	else if (w->interval)
1238	((WT)w)->at += ceil ((ev_rt_now - ((WT)w)->at) / w->interval) * w->interval;	1387	((WT)w)->at = w->offset + ceil ((ev_rt_now - w->offset) / w->interval) * w->interval;
1239	}	1388	}
1240		1389
1241	/* now rebuild the heap */	1390	/* now rebuild the heap */
1242	for (i = periodiccnt >> 1; i--; )	1391	for (i = periodiccnt >> 1; i--; )
1243	downheap ((WT *)periodics, periodiccnt, i);	1392	downheap (periodics, periodiccnt, i);
1244	}	1393	}
1245	#endif	1394	#endif
1246		1395
		1396	#if EV_IDLE_ENABLE
1247	int inline_size	1397	void inline_size
1248	time_update_monotonic (EV_P)	1398	idle_reify (EV_P)
1249	{	1399	{
		1400	if (expect_false (idleall))
		1401	{
		1402	int pri;
		1403
		1404	for (pri = NUMPRI; pri--; )
		1405	{
		1406	if (pendingcnt [pri])
		1407	break;
		1408
		1409	if (idlecnt [pri])
		1410	{
		1411	queue_events (EV_A_ (W *)idles [pri], idlecnt [pri], EV_IDLE);
		1412	break;
		1413	}
		1414	}
		1415	}
		1416	}
		1417	#endif
		1418
		1419	void inline_speed
		1420	time_update (EV_P_ ev_tstamp max_block)
		1421	{
		1422	int i;
		1423
		1424	#if EV_USE_MONOTONIC
		1425	if (expect_true (have_monotonic))
		1426	{
		1427	ev_tstamp odiff = rtmn_diff;
		1428
1250	mn_now = get_clock ();	1429	mn_now = get_clock ();
1251		1430
		1431	/* only fetch the realtime clock every 0.5MIN_TIMEJUMP seconds /
		1432	/* interpolate in the meantime */
1252	if (expect_true (mn_now - now_floor < MIN_TIMEJUMP * .5))	1433	if (expect_true (mn_now - now_floor < MIN_TIMEJUMP * .5))
1253	{	1434	{
1254	ev_rt_now = rtmn_diff + mn_now;	1435	ev_rt_now = rtmn_diff + mn_now;
1255	return 0;	1436	return;
1256	}	1437	}
1257	else	1438
1258	{
1259	now_floor = mn_now;	1439	now_floor = mn_now;
1260	ev_rt_now = ev_time ();	1440	ev_rt_now = ev_time ();
1261	return 1;
1262	}
1263	}
1264		1441
1265	void inline_size	1442	/* loop a few times, before making important decisions.
1266	time_update (EV_P)	1443	* on the choice of "4": one iteration isn't enough,
1267	{	1444	* in case we get preempted during the calls to
1268	int i;	1445	* ev_time and get_clock. a second call is almost guaranteed
1269		1446	* to succeed in that case, though. and looping a few more times
1270	#if EV_USE_MONOTONIC	1447	* doesn't hurt either as we only do this on time-jumps or
1271	if (expect_true (have_monotonic))	1448	* in the unlikely event of having been preempted here.
1272	{	1449	*/
1273	if (time_update_monotonic (EV_A))	1450	for (i = 4; --i; )
1274	{	1451	{
1275	ev_tstamp odiff = rtmn_diff;
1276
1277	/* loop a few times, before making important decisions.
1278	* on the choice of "4": one iteration isn't enough,
1279	* in case we get preempted during the calls to
1280	* ev_time and get_clock. a second call is almost guaranteed
1281	* to succeed in that case, though. and looping a few more times
1282	* doesn't hurt either as we only do this on time-jumps or
1283	* in the unlikely event of having been preempted here.
1284	*/
1285	for (i = 4; --i; )
1286	{
1287	rtmn_diff = ev_rt_now - mn_now;	1452	rtmn_diff = ev_rt_now - mn_now;
1288		1453
1289	if (fabs (odiff - rtmn_diff) < MIN_TIMEJUMP)	1454	if (fabs (odiff - rtmn_diff) < MIN_TIMEJUMP)
1290	return; /* all is well */	1455	return; /* all is well */
1291		1456
1292	ev_rt_now = ev_time ();	1457	ev_rt_now = ev_time ();
1293	mn_now = get_clock ();	1458	mn_now = get_clock ();
1294	now_floor = mn_now;	1459	now_floor = mn_now;
1295	}	1460	}
1296		1461
1297	# if EV_PERIODIC_ENABLE	1462	# if EV_PERIODIC_ENABLE
1298	periodics_reschedule (EV_A);	1463	periodics_reschedule (EV_A);
1299	# endif	1464	# endif
1300	/* no timer adjustment, as the monotonic clock doesn't jump */	1465	/* no timer adjustment, as the monotonic clock doesn't jump */
1301	/* timers_reschedule (EV_A_ rtmn_diff - odiff) */	1466	/* timers_reschedule (EV_A_ rtmn_diff - odiff) */
1302	}
1303	}	1467	}
1304	else	1468	else
1305	#endif	1469	#endif
1306	{	1470	{
1307	ev_rt_now = ev_time ();	1471	ev_rt_now = ev_time ();
1308		1472
1309	if (expect_false (mn_now > ev_rt_now \|\| mn_now < ev_rt_now - MAX_BLOCKTIME - MIN_TIMEJUMP))	1473	if (expect_false (mn_now > ev_rt_now \|\| ev_rt_now > mn_now + max_block + MIN_TIMEJUMP))
1310	{	1474	{
1311	#if EV_PERIODIC_ENABLE	1475	#if EV_PERIODIC_ENABLE
1312	periodics_reschedule (EV_A);	1476	periodics_reschedule (EV_A);
1313	#endif	1477	#endif
1314
1315	/* adjust timers. this is easy, as the offset is the same for all of them */	1478	/* adjust timers. this is easy, as the offset is the same for all of them */
1316	for (i = 0; i < timercnt; ++i)	1479	for (i = 0; i < timercnt; ++i)
1317	((WT)timers [i])->at += ev_rt_now - mn_now;	1480	((WT)timers [i])->at += ev_rt_now - mn_now;
1318	}	1481	}
1319		1482
…		…
1342	? EVUNLOOP_ONE	1505	? EVUNLOOP_ONE
1343	: EVUNLOOP_CANCEL;	1506	: EVUNLOOP_CANCEL;
1344		1507
1345	call_pending (EV_A); /* in case we recurse, ensure ordering stays nice and clean */	1508	call_pending (EV_A); /* in case we recurse, ensure ordering stays nice and clean */
1346		1509
1347	while (activecnt)	1510	do
1348	{	1511	{
1349	#ifndef _WIN32	1512	#ifndef _WIN32
1350	if (expect_false (curpid)) /* penalise the forking check even more */	1513	if (expect_false (curpid)) /* penalise the forking check even more */
1351	if (expect_false (getpid () != curpid))	1514	if (expect_false (getpid () != curpid))
1352	{	1515	{
…		…
1363	queue_events (EV_A_ (W *)forks, forkcnt, EV_FORK);	1526	queue_events (EV_A_ (W *)forks, forkcnt, EV_FORK);
1364	call_pending (EV_A);	1527	call_pending (EV_A);
1365	}	1528	}
1366	#endif	1529	#endif
1367		1530
1368	/* queue check watchers (and execute them) */	1531	/* queue prepare watchers (and execute them) */
1369	if (expect_false (preparecnt))	1532	if (expect_false (preparecnt))
1370	{	1533	{
1371	queue_events (EV_A_ (W *)prepares, preparecnt, EV_PREPARE);	1534	queue_events (EV_A_ (W *)prepares, preparecnt, EV_PREPARE);
1372	call_pending (EV_A);	1535	call_pending (EV_A);
1373	}	1536	}
1374		1537
		1538	if (expect_false (!activecnt))
		1539	break;
		1540
1375	/* we might have forked, so reify kernel state if necessary */	1541	/* we might have forked, so reify kernel state if necessary */
1376	if (expect_false (postfork))	1542	if (expect_false (postfork))
1377	loop_fork (EV_A);	1543	loop_fork (EV_A);
1378		1544
1379	/* update fd-related kernel structures */	1545	/* update fd-related kernel structures */
1380	fd_reify (EV_A);	1546	fd_reify (EV_A);
1381		1547
1382	/* calculate blocking time */	1548	/* calculate blocking time */
1383	{	1549	{
1384	ev_tstamp block;	1550	ev_tstamp waittime = 0.;
		1551	ev_tstamp sleeptime = 0.;
1385		1552
1386	if (flags & EVLOOP_NONBLOCK \|\| idlecnt)	1553	if (expect_true (!(flags & EVLOOP_NONBLOCK \|\| idleall \|\| !activecnt)))
1387	block = 0.; /* do not block at all */
1388	else
1389	{	1554	{
1390	/* update time to cancel out callback processing overhead */	1555	/* update time to cancel out callback processing overhead */
1391	#if EV_USE_MONOTONIC
1392	if (expect_true (have_monotonic))
1393	time_update_monotonic (EV_A);	1556	time_update (EV_A_ 1e100);
1394	else
1395	#endif
1396	{
1397	ev_rt_now = ev_time ();
1398	mn_now = ev_rt_now;
1399	}
1400		1557
1401	block = MAX_BLOCKTIME;	1558	waittime = MAX_BLOCKTIME;
1402		1559
1403	if (timercnt)	1560	if (timercnt)
1404	{	1561	{
1405	ev_tstamp to = ((WT)timers [0])->at - mn_now + backend_fudge;	1562	ev_tstamp to = ((WT)timers [0])->at - mn_now + backend_fudge;
1406	if (block > to) block = to;	1563	if (waittime > to) waittime = to;
1407	}	1564	}
1408		1565
1409	#if EV_PERIODIC_ENABLE	1566	#if EV_PERIODIC_ENABLE
1410	if (periodiccnt)	1567	if (periodiccnt)
1411	{	1568	{
1412	ev_tstamp to = ((WT)periodics [0])->at - ev_rt_now + backend_fudge;	1569	ev_tstamp to = ((WT)periodics [0])->at - ev_rt_now + backend_fudge;
1413	if (block > to) block = to;	1570	if (waittime > to) waittime = to;
1414	}	1571	}
1415	#endif	1572	#endif
1416		1573
1417	if (expect_false (block < 0.)) block = 0.;	1574	if (expect_false (waittime < timeout_blocktime))
		1575	waittime = timeout_blocktime;
		1576
		1577	sleeptime = waittime - backend_fudge;
		1578
		1579	if (expect_true (sleeptime > io_blocktime))
		1580	sleeptime = io_blocktime;
		1581
		1582	if (sleeptime)
		1583	{
		1584	ev_sleep (sleeptime);
		1585	waittime -= sleeptime;
		1586	}
1418	}	1587	}
1419		1588
		1589	++loop_count;
1420	backend_poll (EV_A_ block);	1590	backend_poll (EV_A_ waittime);
		1591
		1592	/* update ev_rt_now, do magic */
		1593	time_update (EV_A_ waittime + sleeptime);
1421	}	1594	}
1422
1423	/* update ev_rt_now, do magic */
1424	time_update (EV_A);
1425		1595
1426	/* queue pending timers and reschedule them */	1596	/* queue pending timers and reschedule them */
1427	timers_reify (EV_A); /* relative timers called last */	1597	timers_reify (EV_A); /* relative timers called last */
1428	#if EV_PERIODIC_ENABLE	1598	#if EV_PERIODIC_ENABLE
1429	periodics_reify (EV_A); /* absolute timers called first */	1599	periodics_reify (EV_A); /* absolute timers called first */
1430	#endif	1600	#endif
1431		1601
		1602	#if EV_IDLE_ENABLE
1432	/* queue idle watchers unless other events are pending */	1603	/* queue idle watchers unless other events are pending */
1433	if (idlecnt && !any_pending (EV_A))	1604	idle_reify (EV_A);
1434	queue_events (EV_A_ (W *)idles, idlecnt, EV_IDLE);	1605	#endif
1435		1606
1436	/* queue check watchers, to be executed first */	1607	/* queue check watchers, to be executed first */
1437	if (expect_false (checkcnt))	1608	if (expect_false (checkcnt))
1438	queue_events (EV_A_ (W *)checks, checkcnt, EV_CHECK);	1609	queue_events (EV_A_ (W *)checks, checkcnt, EV_CHECK);
1439		1610
1440	call_pending (EV_A);	1611	call_pending (EV_A);
1441		1612
1442	if (expect_false (loop_done))
1443	break;
1444	}	1613	}
		1614	while (expect_true (activecnt && !loop_done));
1445		1615
1446	if (loop_done == EVUNLOOP_ONE)	1616	if (loop_done == EVUNLOOP_ONE)
1447	loop_done = EVUNLOOP_CANCEL;	1617	loop_done = EVUNLOOP_CANCEL;
1448	}	1618	}
1449		1619
…		…
1476	head = &(*head)->next;	1646	head = &(*head)->next;
1477	}	1647	}
1478	}	1648	}
1479		1649
1480	void inline_speed	1650	void inline_speed
1481	ev_clear_pending (EV_P_ W w)	1651	clear_pending (EV_P_ W w)
1482	{	1652	{
1483	if (w->pending)	1653	if (w->pending)
1484	{	1654	{
1485	pendings [ABSPRI (w)][w->pending - 1].w = 0;	1655	pendings [ABSPRI (w)][w->pending - 1].w = 0;
1486	w->pending = 0;	1656	w->pending = 0;
1487	}	1657	}
1488	}	1658	}
1489		1659
		1660	int
		1661	ev_clear_pending (EV_P_ void *w)
		1662	{
		1663	W w_ = (W)w;
		1664	int pending = w_->pending;
		1665
		1666	if (expect_true (pending))
		1667	{
		1668	ANPENDING *p = pendings [ABSPRI (w_)] + pending - 1;
		1669	w_->pending = 0;
		1670	p->w = 0;
		1671	return p->events;
		1672	}
		1673	else
		1674	return 0;
		1675	}
		1676
		1677	void inline_size
		1678	pri_adjust (EV_P_ W w)
		1679	{
		1680	int pri = w->priority;
		1681	pri = pri < EV_MINPRI ? EV_MINPRI : pri;
		1682	pri = pri > EV_MAXPRI ? EV_MAXPRI : pri;
		1683	w->priority = pri;
		1684	}
		1685
1490	void inline_speed	1686	void inline_speed
1491	ev_start (EV_P_ W w, int active)	1687	ev_start (EV_P_ W w, int active)
1492	{	1688	{
1493	if (w->priority < EV_MINPRI) w->priority = EV_MINPRI;	1689	pri_adjust (EV_A_ w);
1494	if (w->priority > EV_MAXPRI) w->priority = EV_MAXPRI;
1495
1496	w->active = active;	1690	w->active = active;
1497	ev_ref (EV_A);	1691	ev_ref (EV_A);
1498	}	1692	}
1499		1693
1500	void inline_size	1694	void inline_size
…		…
1504	w->active = 0;	1698	w->active = 0;
1505	}	1699	}
1506		1700
1507	/*****************************************************************************/	1701	/*****************************************************************************/
1508		1702
1509	void	1703	void noinline
1510	ev_io_start (EV_P_ ev_io *w)	1704	ev_io_start (EV_P_ ev_io *w)
1511	{	1705	{
1512	int fd = w->fd;	1706	int fd = w->fd;
1513		1707
1514	if (expect_false (ev_is_active (w)))	1708	if (expect_false (ev_is_active (w)))
…		…
1516		1710
1517	assert (("ev_io_start called with negative fd", fd >= 0));	1711	assert (("ev_io_start called with negative fd", fd >= 0));
1518		1712
1519	ev_start (EV_A_ (W)w, 1);	1713	ev_start (EV_A_ (W)w, 1);
1520	array_needsize (ANFD, anfds, anfdmax, fd + 1, anfds_init);	1714	array_needsize (ANFD, anfds, anfdmax, fd + 1, anfds_init);
1521	wlist_add ((WL *)&anfds[fd].head, (WL)w);	1715	wlist_add (&anfds[fd].head, (WL)w);
1522		1716
1523	fd_change (EV_A_ fd);	1717	fd_change (EV_A_ fd, w->events & EV_IOFDSET \| 1);
		1718	w->events &= ~EV_IOFDSET;
1524	}	1719	}
1525		1720
1526	void	1721	void noinline
1527	ev_io_stop (EV_P_ ev_io *w)	1722	ev_io_stop (EV_P_ ev_io *w)
1528	{	1723	{
1529	ev_clear_pending (EV_A_ (W)w);	1724	clear_pending (EV_A_ (W)w);
1530	if (expect_false (!ev_is_active (w)))	1725	if (expect_false (!ev_is_active (w)))
1531	return;	1726	return;
1532		1727
1533	assert (("ev_io_start called with illegal fd (must stay constant after start!)", w->fd >= 0 && w->fd < anfdmax));	1728	assert (("ev_io_start called with illegal fd (must stay constant after start!)", w->fd >= 0 && w->fd < anfdmax));
1534		1729
1535	wlist_del ((WL *)&anfds[w->fd].head, (WL)w);	1730	wlist_del (&anfds[w->fd].head, (WL)w);
1536	ev_stop (EV_A_ (W)w);	1731	ev_stop (EV_A_ (W)w);
1537		1732
1538	fd_change (EV_A_ w->fd);	1733	fd_change (EV_A_ w->fd, 1);
1539	}	1734	}
1540		1735
1541	void	1736	void noinline
1542	ev_timer_start (EV_P_ ev_timer *w)	1737	ev_timer_start (EV_P_ ev_timer *w)
1543	{	1738	{
1544	if (expect_false (ev_is_active (w)))	1739	if (expect_false (ev_is_active (w)))
1545	return;	1740	return;
1546		1741
1547	((WT)w)->at += mn_now;	1742	((WT)w)->at += mn_now;
1548		1743
1549	assert (("ev_timer_start called with negative timer repeat value", w->repeat >= 0.));	1744	assert (("ev_timer_start called with negative timer repeat value", w->repeat >= 0.));
1550		1745
1551	ev_start (EV_A_ (W)w, ++timercnt);	1746	ev_start (EV_A_ (W)w, ++timercnt);
1552	array_needsize (ev_timer *, timers, timermax, timercnt, EMPTY2);	1747	array_needsize (WT, timers, timermax, timercnt, EMPTY2);
1553	timers [timercnt - 1] = w;	1748	timers [timercnt - 1] = (WT)w;
1554	upheap ((WT *)timers, timercnt - 1);	1749	upheap (timers, timercnt - 1);
1555		1750
1556	/assert (("internal timer heap corruption", timers [((W)w)->active - 1] == w));/	1751	/assert (("internal timer heap corruption", timers [((W)w)->active - 1] == w));/
1557	}	1752	}
1558		1753
1559	void	1754	void noinline
1560	ev_timer_stop (EV_P_ ev_timer *w)	1755	ev_timer_stop (EV_P_ ev_timer *w)
1561	{	1756	{
1562	ev_clear_pending (EV_A_ (W)w);	1757	clear_pending (EV_A_ (W)w);
1563	if (expect_false (!ev_is_active (w)))	1758	if (expect_false (!ev_is_active (w)))
1564	return;	1759	return;
1565		1760
1566	assert (("internal timer heap corruption", timers [((W)w)->active - 1] == w));	1761	assert (("internal timer heap corruption", timers [((W)w)->active - 1] == (WT)w));
1567		1762
1568	{	1763	{
1569	int active = ((W)w)->active;	1764	int active = ((W)w)->active;
1570		1765
1571	if (expect_true (--active < --timercnt))	1766	if (expect_true (--active < --timercnt))
1572	{	1767	{
1573	timers [active] = timers [timercnt];	1768	timers [active] = timers [timercnt];
1574	adjustheap ((WT *)timers, timercnt, active);	1769	adjustheap (timers, timercnt, active);
1575	}	1770	}
1576	}	1771	}
1577		1772
1578	((WT)w)->at -= mn_now;	1773	((WT)w)->at -= mn_now;
1579		1774
1580	ev_stop (EV_A_ (W)w);	1775	ev_stop (EV_A_ (W)w);
1581	}	1776	}
1582		1777
1583	void	1778	void noinline
1584	ev_timer_again (EV_P_ ev_timer *w)	1779	ev_timer_again (EV_P_ ev_timer *w)
1585	{	1780	{
1586	if (ev_is_active (w))	1781	if (ev_is_active (w))
1587	{	1782	{
1588	if (w->repeat)	1783	if (w->repeat)
1589	{	1784	{
1590	((WT)w)->at = mn_now + w->repeat;	1785	((WT)w)->at = mn_now + w->repeat;
1591	adjustheap ((WT *)timers, timercnt, ((W)w)->active - 1);	1786	adjustheap (timers, timercnt, ((W)w)->active - 1);
1592	}	1787	}
1593	else	1788	else
1594	ev_timer_stop (EV_A_ w);	1789	ev_timer_stop (EV_A_ w);
1595	}	1790	}
1596	else if (w->repeat)	1791	else if (w->repeat)
…		…
1599	ev_timer_start (EV_A_ w);	1794	ev_timer_start (EV_A_ w);
1600	}	1795	}
1601	}	1796	}
1602		1797
1603	#if EV_PERIODIC_ENABLE	1798	#if EV_PERIODIC_ENABLE
1604	void	1799	void noinline
1605	ev_periodic_start (EV_P_ ev_periodic *w)	1800	ev_periodic_start (EV_P_ ev_periodic *w)
1606	{	1801	{
1607	if (expect_false (ev_is_active (w)))	1802	if (expect_false (ev_is_active (w)))
1608	return;	1803	return;
1609		1804
…		…
1611	((WT)w)->at = w->reschedule_cb (w, ev_rt_now);	1806	((WT)w)->at = w->reschedule_cb (w, ev_rt_now);
1612	else if (w->interval)	1807	else if (w->interval)
1613	{	1808	{
1614	assert (("ev_periodic_start called with negative interval value", w->interval >= 0.));	1809	assert (("ev_periodic_start called with negative interval value", w->interval >= 0.));
1615	/* this formula differs from the one in periodic_reify because we do not always round up */	1810	/* this formula differs from the one in periodic_reify because we do not always round up */
1616	((WT)w)->at += ceil ((ev_rt_now - ((WT)w)->at) / w->interval) * w->interval;	1811	((WT)w)->at = w->offset + ceil ((ev_rt_now - w->offset) / w->interval) * w->interval;
1617	}	1812	}
		1813	else
		1814	((WT)w)->at = w->offset;
1618		1815
1619	ev_start (EV_A_ (W)w, ++periodiccnt);	1816	ev_start (EV_A_ (W)w, ++periodiccnt);
1620	array_needsize (ev_periodic *, periodics, periodicmax, periodiccnt, EMPTY2);	1817	array_needsize (WT, periodics, periodicmax, periodiccnt, EMPTY2);
1621	periodics [periodiccnt - 1] = w;	1818	periodics [periodiccnt - 1] = (WT)w;
1622	upheap ((WT *)periodics, periodiccnt - 1);	1819	upheap (periodics, periodiccnt - 1);
1623		1820
1624	/assert (("internal periodic heap corruption", periodics [((W)w)->active - 1] == w));/	1821	/assert (("internal periodic heap corruption", periodics [((W)w)->active - 1] == w));/
1625	}	1822	}
1626		1823
1627	void	1824	void noinline
1628	ev_periodic_stop (EV_P_ ev_periodic *w)	1825	ev_periodic_stop (EV_P_ ev_periodic *w)
1629	{	1826	{
1630	ev_clear_pending (EV_A_ (W)w);	1827	clear_pending (EV_A_ (W)w);
1631	if (expect_false (!ev_is_active (w)))	1828	if (expect_false (!ev_is_active (w)))
1632	return;	1829	return;
1633		1830
1634	assert (("internal periodic heap corruption", periodics [((W)w)->active - 1] == w));	1831	assert (("internal periodic heap corruption", periodics [((W)w)->active - 1] == (WT)w));
1635		1832
1636	{	1833	{
1637	int active = ((W)w)->active;	1834	int active = ((W)w)->active;
1638		1835
1639	if (expect_true (--active < --periodiccnt))	1836	if (expect_true (--active < --periodiccnt))
1640	{	1837	{
1641	periodics [active] = periodics [periodiccnt];	1838	periodics [active] = periodics [periodiccnt];
1642	adjustheap ((WT *)periodics, periodiccnt, active);	1839	adjustheap (periodics, periodiccnt, active);
1643	}	1840	}
1644	}	1841	}
1645		1842
1646	ev_stop (EV_A_ (W)w);	1843	ev_stop (EV_A_ (W)w);
1647	}	1844	}
1648		1845
1649	void	1846	void noinline
1650	ev_periodic_again (EV_P_ ev_periodic *w)	1847	ev_periodic_again (EV_P_ ev_periodic *w)
1651	{	1848	{
1652	/* TODO: use adjustheap and recalculation */	1849	/* TODO: use adjustheap and recalculation */
1653	ev_periodic_stop (EV_A_ w);	1850	ev_periodic_stop (EV_A_ w);
1654	ev_periodic_start (EV_A_ w);	1851	ev_periodic_start (EV_A_ w);
…		…
1657		1854
1658	#ifndef SA_RESTART	1855	#ifndef SA_RESTART
1659	# define SA_RESTART 0	1856	# define SA_RESTART 0
1660	#endif	1857	#endif
1661		1858
1662	void	1859	void noinline
1663	ev_signal_start (EV_P_ ev_signal *w)	1860	ev_signal_start (EV_P_ ev_signal *w)
1664	{	1861	{
1665	#if EV_MULTIPLICITY	1862	#if EV_MULTIPLICITY
1666	assert (("signal watchers are only supported in the default loop", loop == ev_default_loop_ptr));	1863	assert (("signal watchers are only supported in the default loop", loop == ev_default_loop_ptr));
1667	#endif	1864	#endif
1668	if (expect_false (ev_is_active (w)))	1865	if (expect_false (ev_is_active (w)))
1669	return;	1866	return;
1670		1867
1671	assert (("ev_signal_start called with illegal signal number", w->signum > 0));	1868	assert (("ev_signal_start called with illegal signal number", w->signum > 0));
1672		1869
		1870	{
		1871	#ifndef _WIN32
		1872	sigset_t full, prev;
		1873	sigfillset (&full);
		1874	sigprocmask (SIG_SETMASK, &full, &prev);
		1875	#endif
		1876
		1877	array_needsize (ANSIG, signals, signalmax, w->signum, signals_init);
		1878
		1879	#ifndef _WIN32
		1880	sigprocmask (SIG_SETMASK, &prev, 0);
		1881	#endif
		1882	}
		1883
1673	ev_start (EV_A_ (W)w, 1);	1884	ev_start (EV_A_ (W)w, 1);
1674	array_needsize (ANSIG, signals, signalmax, w->signum, signals_init);
1675	wlist_add ((WL *)&signals [w->signum - 1].head, (WL)w);	1885	wlist_add (&signals [w->signum - 1].head, (WL)w);
1676		1886
1677	if (!((WL)w)->next)	1887	if (!((WL)w)->next)
1678	{	1888	{
1679	#if _WIN32	1889	#if _WIN32
1680	signal (w->signum, sighandler);	1890	signal (w->signum, sighandler);
…		…
1686	sigaction (w->signum, &sa, 0);	1896	sigaction (w->signum, &sa, 0);
1687	#endif	1897	#endif
1688	}	1898	}
1689	}	1899	}
1690		1900
1691	void	1901	void noinline
1692	ev_signal_stop (EV_P_ ev_signal *w)	1902	ev_signal_stop (EV_P_ ev_signal *w)
1693	{	1903	{
1694	ev_clear_pending (EV_A_ (W)w);	1904	clear_pending (EV_A_ (W)w);
1695	if (expect_false (!ev_is_active (w)))	1905	if (expect_false (!ev_is_active (w)))
1696	return;	1906	return;
1697		1907
1698	wlist_del ((WL *)&signals [w->signum - 1].head, (WL)w);	1908	wlist_del (&signals [w->signum - 1].head, (WL)w);
1699	ev_stop (EV_A_ (W)w);	1909	ev_stop (EV_A_ (W)w);
1700		1910
1701	if (!signals [w->signum - 1].head)	1911	if (!signals [w->signum - 1].head)
1702	signal (w->signum, SIG_DFL);	1912	signal (w->signum, SIG_DFL);
1703	}	1913	}
…		…
1710	#endif	1920	#endif
1711	if (expect_false (ev_is_active (w)))	1921	if (expect_false (ev_is_active (w)))
1712	return;	1922	return;
1713		1923
1714	ev_start (EV_A_ (W)w, 1);	1924	ev_start (EV_A_ (W)w, 1);
1715	wlist_add ((WL *)&childs [w->pid & (EV_PID_HASHSIZE - 1)], (WL)w);	1925	wlist_add (&childs [w->pid & (EV_PID_HASHSIZE - 1)], (WL)w);
1716	}	1926	}
1717		1927
1718	void	1928	void
1719	ev_child_stop (EV_P_ ev_child *w)	1929	ev_child_stop (EV_P_ ev_child *w)
1720	{	1930	{
1721	ev_clear_pending (EV_A_ (W)w);	1931	clear_pending (EV_A_ (W)w);
1722	if (expect_false (!ev_is_active (w)))	1932	if (expect_false (!ev_is_active (w)))
1723	return;	1933	return;
1724		1934
1725	wlist_del ((WL *)&childs [w->pid & (EV_PID_HASHSIZE - 1)], (WL)w);	1935	wlist_del (&childs [w->pid & (EV_PID_HASHSIZE - 1)], (WL)w);
1726	ev_stop (EV_A_ (W)w);	1936	ev_stop (EV_A_ (W)w);
1727	}	1937	}
1728		1938
1729	#if EV_STAT_ENABLE	1939	#if EV_STAT_ENABLE
1730		1940
…		…
1962	}	2172	}
1963		2173
1964	void	2174	void
1965	ev_stat_stop (EV_P_ ev_stat *w)	2175	ev_stat_stop (EV_P_ ev_stat *w)
1966	{	2176	{
1967	ev_clear_pending (EV_A_ (W)w);	2177	clear_pending (EV_A_ (W)w);
1968	if (expect_false (!ev_is_active (w)))	2178	if (expect_false (!ev_is_active (w)))
1969	return;	2179	return;
1970		2180
1971	#if EV_USE_INOTIFY	2181	#if EV_USE_INOTIFY
1972	infy_del (EV_A_ w);	2182	infy_del (EV_A_ w);
…		…
1975		2185
1976	ev_stop (EV_A_ (W)w);	2186	ev_stop (EV_A_ (W)w);
1977	}	2187	}
1978	#endif	2188	#endif
1979		2189
		2190	#if EV_IDLE_ENABLE
1980	void	2191	void
1981	ev_idle_start (EV_P_ ev_idle *w)	2192	ev_idle_start (EV_P_ ev_idle *w)
1982	{	2193	{
1983	if (expect_false (ev_is_active (w)))	2194	if (expect_false (ev_is_active (w)))
1984	return;	2195	return;
1985		2196
		2197	pri_adjust (EV_A_ (W)w);
		2198
		2199	{
		2200	int active = ++idlecnt [ABSPRI (w)];
		2201
		2202	++idleall;
1986	ev_start (EV_A_ (W)w, ++idlecnt);	2203	ev_start (EV_A_ (W)w, active);
		2204
1987	array_needsize (ev_idle *, idles, idlemax, idlecnt, EMPTY2);	2205	array_needsize (ev_idle *, idles [ABSPRI (w)], idlemax [ABSPRI (w)], active, EMPTY2);
1988	idles [idlecnt - 1] = w;	2206	idles [ABSPRI (w)][active - 1] = w;
		2207	}
1989	}	2208	}
1990		2209
1991	void	2210	void
1992	ev_idle_stop (EV_P_ ev_idle *w)	2211	ev_idle_stop (EV_P_ ev_idle *w)
1993	{	2212	{
1994	ev_clear_pending (EV_A_ (W)w);	2213	clear_pending (EV_A_ (W)w);
1995	if (expect_false (!ev_is_active (w)))	2214	if (expect_false (!ev_is_active (w)))
1996	return;	2215	return;
1997		2216
1998	{	2217	{
1999	int active = ((W)w)->active;	2218	int active = ((W)w)->active;
2000	idles [active - 1] = idles [--idlecnt];	2219
		2220	idles [ABSPRI (w)][active - 1] = idles [ABSPRI (w)][--idlecnt [ABSPRI (w)]];
2001	((W)idles [active - 1])->active = active;	2221	((W)idles [ABSPRI (w)][active - 1])->active = active;
		2222
		2223	ev_stop (EV_A_ (W)w);
		2224	--idleall;
2002	}	2225	}
2003
2004	ev_stop (EV_A_ (W)w);
2005	}	2226	}
		2227	#endif
2006		2228
2007	void	2229	void
2008	ev_prepare_start (EV_P_ ev_prepare *w)	2230	ev_prepare_start (EV_P_ ev_prepare *w)
2009	{	2231	{
2010	if (expect_false (ev_is_active (w)))	2232	if (expect_false (ev_is_active (w)))
…		…
2016	}	2238	}
2017		2239
2018	void	2240	void
2019	ev_prepare_stop (EV_P_ ev_prepare *w)	2241	ev_prepare_stop (EV_P_ ev_prepare *w)
2020	{	2242	{
2021	ev_clear_pending (EV_A_ (W)w);	2243	clear_pending (EV_A_ (W)w);
2022	if (expect_false (!ev_is_active (w)))	2244	if (expect_false (!ev_is_active (w)))
2023	return;	2245	return;
2024		2246
2025	{	2247	{
2026	int active = ((W)w)->active;	2248	int active = ((W)w)->active;
…		…
2043	}	2265	}
2044		2266
2045	void	2267	void
2046	ev_check_stop (EV_P_ ev_check *w)	2268	ev_check_stop (EV_P_ ev_check *w)
2047	{	2269	{
2048	ev_clear_pending (EV_A_ (W)w);	2270	clear_pending (EV_A_ (W)w);
2049	if (expect_false (!ev_is_active (w)))	2271	if (expect_false (!ev_is_active (w)))
2050	return;	2272	return;
2051		2273
2052	{	2274	{
2053	int active = ((W)w)->active;	2275	int active = ((W)w)->active;
…		…
2060		2282
2061	#if EV_EMBED_ENABLE	2283	#if EV_EMBED_ENABLE
2062	void noinline	2284	void noinline
2063	ev_embed_sweep (EV_P_ ev_embed *w)	2285	ev_embed_sweep (EV_P_ ev_embed *w)
2064	{	2286	{
2065	ev_loop (w->loop, EVLOOP_NONBLOCK);	2287	ev_loop (w->other, EVLOOP_NONBLOCK);
2066	}	2288	}
2067		2289
2068	static void	2290	static void
2069	embed_cb (EV_P_ ev_io *io, int revents)	2291	embed_io_cb (EV_P_ ev_io *io, int revents)
2070	{	2292	{
2071	ev_embed w = (ev_embed )(((char *)io) - offsetof (ev_embed, io));	2293	ev_embed w = (ev_embed )(((char *)io) - offsetof (ev_embed, io));
2072		2294
2073	if (ev_cb (w))	2295	if (ev_cb (w))
2074	ev_feed_event (EV_A_ (W)w, EV_EMBED);	2296	ev_feed_event (EV_A_ (W)w, EV_EMBED);
2075	else	2297	else
2076	ev_embed_sweep (loop, w);	2298	ev_loop (w->other, EVLOOP_NONBLOCK);
2077	}	2299	}
		2300
		2301	static void
		2302	embed_prepare_cb (EV_P_ ev_prepare *prepare, int revents)
		2303	{
		2304	ev_embed w = (ev_embed )(((char *)prepare) - offsetof (ev_embed, prepare));
		2305
		2306	{
		2307	struct ev_loop *loop = w->other;
		2308
		2309	while (fdchangecnt)
		2310	{
		2311	fd_reify (EV_A);
		2312	ev_loop (EV_A_ EVLOOP_NONBLOCK);
		2313	}
		2314	}
		2315	}
		2316
		2317	#if 0
		2318	static void
		2319	embed_idle_cb (EV_P_ ev_idle *idle, int revents)
		2320	{
		2321	ev_idle_stop (EV_A_ idle);
		2322	}
		2323	#endif
2078		2324
2079	void	2325	void
2080	ev_embed_start (EV_P_ ev_embed *w)	2326	ev_embed_start (EV_P_ ev_embed *w)
2081	{	2327	{
2082	if (expect_false (ev_is_active (w)))	2328	if (expect_false (ev_is_active (w)))
2083	return;	2329	return;
2084		2330
2085	{	2331	{
2086	struct ev_loop *loop = w->loop;	2332	struct ev_loop *loop = w->other;
2087	assert (("loop to be embedded is not embeddable", backend & ev_embeddable_backends ()));	2333	assert (("loop to be embedded is not embeddable", backend & ev_embeddable_backends ()));
2088	ev_io_init (&w->io, embed_cb, backend_fd, EV_READ);	2334	ev_io_init (&w->io, embed_io_cb, backend_fd, EV_READ);
2089	}	2335	}
2090		2336
2091	ev_set_priority (&w->io, ev_priority (w));	2337	ev_set_priority (&w->io, ev_priority (w));
2092	ev_io_start (EV_A_ &w->io);	2338	ev_io_start (EV_A_ &w->io);
2093		2339
		2340	ev_prepare_init (&w->prepare, embed_prepare_cb);
		2341	ev_set_priority (&w->prepare, EV_MINPRI);
		2342	ev_prepare_start (EV_A_ &w->prepare);
		2343
		2344	/ev_idle_init (&w->idle, e,bed_idle_cb);/
		2345
2094	ev_start (EV_A_ (W)w, 1);	2346	ev_start (EV_A_ (W)w, 1);
2095	}	2347	}
2096		2348
2097	void	2349	void
2098	ev_embed_stop (EV_P_ ev_embed *w)	2350	ev_embed_stop (EV_P_ ev_embed *w)
2099	{	2351	{
2100	ev_clear_pending (EV_A_ (W)w);	2352	clear_pending (EV_A_ (W)w);
2101	if (expect_false (!ev_is_active (w)))	2353	if (expect_false (!ev_is_active (w)))
2102	return;	2354	return;
2103		2355
2104	ev_io_stop (EV_A_ &w->io);	2356	ev_io_stop (EV_A_ &w->io);
		2357	ev_prepare_stop (EV_A_ &w->prepare);
2105		2358
2106	ev_stop (EV_A_ (W)w);	2359	ev_stop (EV_A_ (W)w);
2107	}	2360	}
2108	#endif	2361	#endif
2109		2362
…		…
2120	}	2373	}
2121		2374
2122	void	2375	void
2123	ev_fork_stop (EV_P_ ev_fork *w)	2376	ev_fork_stop (EV_P_ ev_fork *w)
2124	{	2377	{
2125	ev_clear_pending (EV_A_ (W)w);	2378	clear_pending (EV_A_ (W)w);
2126	if (expect_false (!ev_is_active (w)))	2379	if (expect_false (!ev_is_active (w)))
2127	return;	2380	return;
2128		2381
2129	{	2382	{
2130	int active = ((W)w)->active;	2383	int active = ((W)w)->active;
…		…
2198	ev_timer_set (&once->to, timeout, 0.);	2451	ev_timer_set (&once->to, timeout, 0.);
2199	ev_timer_start (EV_A_ &once->to);	2452	ev_timer_start (EV_A_ &once->to);
2200	}	2453	}
2201	}	2454	}
2202		2455
		2456	#if EV_MULTIPLICITY
		2457	#include "ev_wrap.h"
		2458	#endif
		2459
2203	#ifdef __cplusplus	2460	#ifdef __cplusplus
2204	}	2461	}
2205	#endif	2462	#endif
2206		2463

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Comparing libev/ev.c (file contents): Revision 1.158 by root, Thu Nov 29 17:28:13 2007 UTC vs. Revision 1.206 by root, Fri Jan 25 15:45:08 2008 UTC

Diff Legend

Comparing libev/ev.c (file contents):
Revision 1.158 by root, Thu Nov 29 17:28:13 2007 UTC vs.
Revision 1.206 by root, Fri Jan 25 15:45:08 2008 UTC