hloop.c 19 KB

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  1. #include "hloop.h"
  2. #include "hevent.h"
  3. #include "iowatcher.h"
  4. #include "hdef.h"
  5. #include "hbase.h"
  6. #include "hlog.h"
  7. #include "hmath.h"
  8. #include "htime.h"
  9. #include "hsocket.h"
  10. #define PAUSE_TIME 10 // ms
  11. #define MAX_BLOCK_TIME 1000 // ms
  12. #define IO_ARRAY_INIT_SIZE 1024
  13. static void hio_init(hio_t* io);
  14. static void hio_ready(hio_t* io);
  15. static void hio_done(hio_t* io);
  16. static void hio_free(hio_t* io);
  17. static void __hidle_del(hidle_t* idle);
  18. static void __htimer_del(htimer_t* timer);
  19. static int timers_compare(const struct heap_node* lhs, const struct heap_node* rhs) {
  20. return TIMER_ENTRY(lhs)->next_timeout < TIMER_ENTRY(rhs)->next_timeout;
  21. }
  22. static int hloop_process_idles(hloop_t* loop) {
  23. int nidles = 0;
  24. struct list_node* node = loop->idles.next;
  25. hidle_t* idle = NULL;
  26. while (node != &loop->idles) {
  27. idle = IDLE_ENTRY(node);
  28. node = node->next;
  29. if (idle->repeat != INFINITE) {
  30. --idle->repeat;
  31. }
  32. if (idle->repeat == 0) {
  33. __hidle_del(idle);
  34. }
  35. EVENT_PENDING(idle);
  36. ++nidles;
  37. }
  38. return nidles;
  39. }
  40. static int hloop_process_timers(hloop_t* loop) {
  41. int ntimers = 0;
  42. htimer_t* timer = NULL;
  43. uint64_t now_hrtime = hloop_now_hrtime(loop);
  44. while (loop->timers.root) {
  45. timer = TIMER_ENTRY(loop->timers.root);
  46. if (timer->next_timeout > now_hrtime) {
  47. break;
  48. }
  49. if (timer->repeat != INFINITE) {
  50. --timer->repeat;
  51. }
  52. if (timer->repeat == 0) {
  53. __htimer_del(timer);
  54. }
  55. else {
  56. heap_dequeue(&loop->timers);
  57. if (timer->event_type == HEVENT_TYPE_TIMEOUT) {
  58. while (timer->next_timeout <= now_hrtime) {
  59. timer->next_timeout += ((htimeout_t*)timer)->timeout*1000;
  60. }
  61. }
  62. else if (timer->event_type == HEVENT_TYPE_PERIOD) {
  63. hperiod_t* period = (hperiod_t*)timer;
  64. timer->next_timeout = calc_next_timeout(period->minute, period->hour, period->day,
  65. period->week, period->month) * 1e6;
  66. }
  67. heap_insert(&loop->timers, &timer->node);
  68. }
  69. EVENT_PENDING(timer);
  70. ++ntimers;
  71. }
  72. return ntimers;
  73. }
  74. static int hloop_process_ios(hloop_t* loop, int timeout) {
  75. int nevents = iowatcher_poll_events(loop, timeout);
  76. if (nevents < 0) {
  77. hloge("poll_events error=%d", -nevents);
  78. }
  79. return nevents < 0 ? 0 : nevents;
  80. }
  81. static int hloop_process_pendings(hloop_t* loop) {
  82. if (loop->npendings == 0) return 0;
  83. hevent_t* cur = NULL;
  84. hevent_t* next = NULL;
  85. int ncbs = 0;
  86. for (int i = HEVENT_PRIORITY_SIZE-1; i >= 0; --i) {
  87. cur = loop->pendings[i];
  88. while (cur) {
  89. next = cur->pending_next;
  90. if (cur->pending) {
  91. if (cur->active && cur->cb) {
  92. cur->cb(cur);
  93. ++ncbs;
  94. }
  95. cur->pending = 0;
  96. if (cur->destroy) {
  97. EVENT_DEL(cur);
  98. }
  99. }
  100. cur = next;
  101. }
  102. loop->pendings[i] = NULL;
  103. }
  104. loop->npendings = 0;
  105. return ncbs;
  106. }
  107. static int hloop_process_events(hloop_t* loop) {
  108. // ios -> timers -> idles
  109. int nios, ntimers, nidles;
  110. nios = ntimers = nidles = 0;
  111. // calc blocktime
  112. int32_t blocktime = MAX_BLOCK_TIME;
  113. hloop_update_time(loop);
  114. if (loop->timers.root) {
  115. uint64_t next_min_timeout = TIMER_ENTRY(loop->timers.root)->next_timeout;
  116. int64_t blocktime_us = next_min_timeout - hloop_now_hrtime(loop);
  117. if (blocktime_us <= 0) goto process_timers;
  118. blocktime = blocktime_us / 1000;
  119. ++blocktime;
  120. blocktime = MIN(blocktime, MAX_BLOCK_TIME);
  121. }
  122. if (loop->nios) {
  123. nios = hloop_process_ios(loop, blocktime);
  124. }
  125. else {
  126. msleep(blocktime);
  127. }
  128. hloop_update_time(loop);
  129. process_timers:
  130. if (loop->ntimers) {
  131. ntimers = hloop_process_timers(loop);
  132. }
  133. int npendings = loop->npendings;
  134. if (npendings == 0) {
  135. if (loop->nidles) {
  136. nidles= hloop_process_idles(loop);
  137. }
  138. }
  139. int ncbs = hloop_process_pendings(loop);
  140. //printd("blocktime=%d nios=%d/%u ntimers=%d/%u nidles=%d/%u nactives=%d npendings=%d ncbs=%d\n",
  141. //blocktime, nios, loop->nios, ntimers, loop->ntimers, nidles, loop->nidles,
  142. //loop->nactives, npendings, ncbs);
  143. return ncbs;
  144. }
  145. static void hloop_init(hloop_t* loop) {
  146. loop->status = HLOOP_STATUS_STOP;
  147. // idles
  148. list_init(&loop->idles);
  149. // timers
  150. heap_init(&loop->timers, timers_compare);
  151. // ios: init when hio_add
  152. //io_array_init(&loop->ios, IO_ARRAY_INIT_SIZE);
  153. // iowatcher: init when iowatcher_add_event
  154. //iowatcher_init(loop);
  155. // NOTE: init start_time here, because htimer_add use it.
  156. loop->start_ms = timestamp_ms();
  157. loop->start_hrtime = loop->cur_hrtime = gethrtime();
  158. }
  159. static void hloop_cleanup(hloop_t* loop) {
  160. // pendings
  161. printd("cleanup pendings...\n");
  162. for (int i = 0; i < HEVENT_PRIORITY_SIZE; ++i) {
  163. loop->pendings[i] = NULL;
  164. }
  165. // idles
  166. printd("cleanup idles...\n");
  167. struct list_node* node = loop->idles.next;
  168. hidle_t* idle;
  169. while (node != &loop->idles) {
  170. idle = IDLE_ENTRY(node);
  171. node = node->next;
  172. SAFE_FREE(idle);
  173. }
  174. list_init(&loop->idles);
  175. // timers
  176. printd("cleanup timers...\n");
  177. htimer_t* timer;
  178. while (loop->timers.root) {
  179. timer = TIMER_ENTRY(loop->timers.root);
  180. heap_dequeue(&loop->timers);
  181. SAFE_FREE(timer);
  182. }
  183. heap_init(&loop->timers, NULL);
  184. // ios
  185. printd("cleanup ios...\n");
  186. for (int i = 0; i < loop->ios.maxsize; ++i) {
  187. hio_t* io = loop->ios.ptr[i];
  188. if (io) {
  189. if ((!(io->io_type&HIO_TYPE_STDIO)) && io->active) {
  190. hio_close(io);
  191. }
  192. hio_free(io);
  193. }
  194. }
  195. io_array_cleanup(&loop->ios);
  196. // iowatcher
  197. iowatcher_cleanup(loop);
  198. }
  199. hloop_t* hloop_new(int flags) {
  200. hloop_t* loop;
  201. SAFE_ALLOC_SIZEOF(loop);
  202. memset(loop, 0, sizeof(hloop_t));
  203. hloop_init(loop);
  204. loop->flags |= flags;
  205. return loop;
  206. }
  207. void hloop_free(hloop_t** pp) {
  208. if (pp && *pp) {
  209. hloop_cleanup(*pp);
  210. SAFE_FREE(*pp);
  211. *pp = NULL;
  212. }
  213. }
  214. int hloop_run(hloop_t* loop) {
  215. loop->status = HLOOP_STATUS_RUNNING;
  216. while (loop->status != HLOOP_STATUS_STOP) {
  217. if (loop->status == HLOOP_STATUS_PAUSE) {
  218. msleep(PAUSE_TIME);
  219. hloop_update_time(loop);
  220. continue;
  221. }
  222. ++loop->loop_cnt;
  223. if (loop->nactives == 0) break;
  224. hloop_process_events(loop);
  225. if (loop->flags & HLOOP_FLAG_RUN_ONCE) {
  226. break;
  227. }
  228. }
  229. loop->status = HLOOP_STATUS_STOP;
  230. loop->end_hrtime = gethrtime();
  231. if (loop->flags & HLOOP_FLAG_AUTO_FREE) {
  232. hloop_cleanup(loop);
  233. SAFE_FREE(loop);
  234. }
  235. return 0;
  236. }
  237. int hloop_stop(hloop_t* loop) {
  238. loop->status = HLOOP_STATUS_STOP;
  239. return 0;
  240. }
  241. int hloop_pause(hloop_t* loop) {
  242. if (loop->status == HLOOP_STATUS_RUNNING) {
  243. loop->status = HLOOP_STATUS_PAUSE;
  244. }
  245. return 0;
  246. }
  247. int hloop_resume(hloop_t* loop) {
  248. if (loop->status == HLOOP_STATUS_PAUSE) {
  249. loop->status = HLOOP_STATUS_RUNNING;
  250. }
  251. return 0;
  252. }
  253. void hloop_update_time(hloop_t* loop) {
  254. loop->cur_hrtime = gethrtime();
  255. if (ABS((int64_t)hloop_now(loop) - (int64_t)time(NULL)) > 1) {
  256. // systemtime changed, we adjust start_ms
  257. loop->start_ms = timestamp_ms() - (loop->cur_hrtime - loop->start_hrtime) / 1000;
  258. }
  259. }
  260. uint64_t hloop_now(hloop_t* loop) {
  261. return loop->start_ms / 1000 + (loop->cur_hrtime - loop->start_hrtime) / 1000000;
  262. }
  263. uint64_t hloop_now_ms(hloop_t* loop) {
  264. return loop->start_ms + (loop->cur_hrtime - loop->start_hrtime) / 1000;
  265. }
  266. uint64_t hloop_now_hrtime(hloop_t* loop) {
  267. return loop->start_ms * 1000 + (loop->cur_hrtime - loop->start_hrtime);
  268. }
  269. void hloop_set_userdata(hloop_t* loop, void* userdata) {
  270. loop->userdata = userdata;
  271. }
  272. void* hloop_userdata(hloop_t* loop) {
  273. return loop->userdata;
  274. }
  275. hidle_t* hidle_add(hloop_t* loop, hidle_cb cb, uint32_t repeat) {
  276. hidle_t* idle;
  277. SAFE_ALLOC_SIZEOF(idle);
  278. idle->event_type = HEVENT_TYPE_IDLE;
  279. idle->priority = HEVENT_LOWEST_PRIORITY;
  280. idle->repeat = repeat;
  281. list_add(&idle->node, &loop->idles);
  282. EVENT_ADD(loop, idle, cb);
  283. loop->nidles++;
  284. return idle;
  285. }
  286. static void __hidle_del(hidle_t* idle) {
  287. if (idle->destroy) return;
  288. idle->destroy = 1;
  289. list_del(&idle->node);
  290. idle->loop->nidles--;
  291. }
  292. void hidle_del(hidle_t* idle) {
  293. if (!idle->active) return;
  294. EVENT_DEL(idle);
  295. __hidle_del(idle);
  296. }
  297. htimer_t* htimer_add(hloop_t* loop, htimer_cb cb, uint64_t timeout, uint32_t repeat) {
  298. if (timeout == 0) return NULL;
  299. htimeout_t* timer;
  300. SAFE_ALLOC_SIZEOF(timer);
  301. timer->event_type = HEVENT_TYPE_TIMEOUT;
  302. timer->priority = HEVENT_HIGHEST_PRIORITY;
  303. timer->repeat = repeat;
  304. timer->timeout = timeout;
  305. hloop_update_time(loop);
  306. timer->next_timeout = hloop_now_hrtime(loop) + timeout*1000;
  307. heap_insert(&loop->timers, &timer->node);
  308. EVENT_ADD(loop, timer, cb);
  309. loop->ntimers++;
  310. return (htimer_t*)timer;
  311. }
  312. void htimer_reset(htimer_t* timer) {
  313. if (timer->event_type != HEVENT_TYPE_TIMEOUT) {
  314. return;
  315. }
  316. hloop_t* loop = timer->loop;
  317. htimeout_t* timeout = (htimeout_t*)timer;
  318. if (timer->pending) {
  319. if (timer->repeat == 0) {
  320. timer->repeat = 1;
  321. }
  322. }
  323. else {
  324. heap_remove(&loop->timers, &timer->node);
  325. }
  326. timer->next_timeout = hloop_now_hrtime(loop) + timeout->timeout*1000;
  327. heap_insert(&loop->timers, &timer->node);
  328. EVENT_RESET(timer);
  329. }
  330. htimer_t* htimer_add_period(hloop_t* loop, htimer_cb cb,
  331. int8_t minute, int8_t hour, int8_t day,
  332. int8_t week, int8_t month, uint32_t repeat) {
  333. if (minute > 59 || hour > 23 || day > 31 || week > 6 || month > 12) {
  334. return NULL;
  335. }
  336. hperiod_t* timer;
  337. SAFE_ALLOC_SIZEOF(timer);
  338. timer->event_type = HEVENT_TYPE_PERIOD;
  339. timer->priority = HEVENT_HIGH_PRIORITY;
  340. timer->repeat = repeat;
  341. timer->minute = minute;
  342. timer->hour = hour;
  343. timer->day = day;
  344. timer->month = month;
  345. timer->week = week;
  346. timer->next_timeout = calc_next_timeout(minute, hour, day, week, month) * 1e6;
  347. heap_insert(&loop->timers, &timer->node);
  348. EVENT_ADD(loop, timer, cb);
  349. loop->ntimers++;
  350. return (htimer_t*)timer;
  351. }
  352. static void __htimer_del(htimer_t* timer) {
  353. if (timer->destroy) return;
  354. heap_remove(&timer->loop->timers, &timer->node);
  355. timer->loop->ntimers--;
  356. timer->destroy = 1;
  357. }
  358. void htimer_del(htimer_t* timer) {
  359. if (!timer->active) return;
  360. __htimer_del(timer);
  361. EVENT_DEL(timer);
  362. }
  363. void hio_init(hio_t* io) {
  364. memset(io, 0, sizeof(hio_t));
  365. io->event_type = HEVENT_TYPE_IO;
  366. io->event_index[0] = io->event_index[1] = -1;
  367. // write_queue init when hwrite try_write failed
  368. //write_queue_init(&io->write_queue, 4);;
  369. }
  370. static void fill_io_type(hio_t* io) {
  371. int type = 0;
  372. socklen_t optlen = sizeof(int);
  373. int ret = getsockopt(io->fd, SOL_SOCKET, SO_TYPE, (char*)&type, &optlen);
  374. printd("getsockopt SO_TYPE fd=%d ret=%d type=%d errno=%d\n", io->fd, ret, type, socket_errno());
  375. if (ret == 0) {
  376. switch (type) {
  377. case SOCK_STREAM: io->io_type = HIO_TYPE_TCP; break;
  378. case SOCK_DGRAM: io->io_type = HIO_TYPE_UDP; break;
  379. case SOCK_RAW: io->io_type = HIO_TYPE_IP; break;
  380. default: io->io_type = HIO_TYPE_SOCKET; break;
  381. }
  382. }
  383. else if (socket_errno() == ENOTSOCK) {
  384. switch (io->fd) {
  385. case 0: io->io_type = HIO_TYPE_STDIN; break;
  386. case 1: io->io_type = HIO_TYPE_STDOUT; break;
  387. case 2: io->io_type = HIO_TYPE_STDERR; break;
  388. default: io->io_type = HIO_TYPE_FILE; break;
  389. }
  390. }
  391. }
  392. static void hio_socket_init(hio_t* io) {
  393. // nonblocking
  394. nonblocking(io->fd);
  395. // fill io->localaddr io->peeraddr
  396. if (io->localaddr == NULL) {
  397. SAFE_ALLOC(io->localaddr, sizeof(sockaddr_un));
  398. }
  399. if (io->peeraddr == NULL) {
  400. SAFE_ALLOC(io->peeraddr, sizeof(sockaddr_un));
  401. }
  402. socklen_t addrlen = sizeof(sockaddr_un);
  403. int ret = getsockname(io->fd, io->localaddr, &addrlen);
  404. printd("getsockname fd=%d ret=%d errno=%d\n", io->fd, ret, socket_errno());
  405. // NOTE:
  406. // tcp_server peeraddr set by accept
  407. // udp_server peeraddr set by recvfrom
  408. // tcp_client/udp_client peeraddr set by hio_setpeeraddr
  409. if (io->io_type == HIO_TYPE_TCP || io->io_type == HIO_TYPE_SSL) {
  410. // tcp acceptfd
  411. addrlen = sizeof(sockaddr_un);
  412. ret = getpeername(io->fd, io->peeraddr, &addrlen);
  413. printd("getpeername fd=%d ret=%d errno=%d\n", io->fd, ret, socket_errno());
  414. }
  415. }
  416. void hio_ready(hio_t* io) {
  417. if (io->ready) return;
  418. io->ready = 1;
  419. io->closed = 0;
  420. io->accept = io->connect = io->connectex = 0;
  421. io->recv = io->send = 0;
  422. io->recvfrom = io->sendto = 0;
  423. io->io_type = HIO_TYPE_UNKNOWN;
  424. io->error = 0;
  425. io->events = io->revents = 0;
  426. io->read_cb = NULL;
  427. io->write_cb = NULL;
  428. io->close_cb = 0;
  429. io->accept_cb = 0;
  430. io->connect_cb = 0;
  431. io->event_index[0] = io->event_index[1] = -1;
  432. io->hovlp = NULL;
  433. fill_io_type(io);
  434. if (io->io_type & HIO_TYPE_SOCKET) {
  435. hio_socket_init(io);
  436. }
  437. }
  438. void hio_done(hio_t* io) {
  439. io->ready = 0;
  440. offset_buf_t* pbuf = NULL;
  441. while (!write_queue_empty(&io->write_queue)) {
  442. pbuf = write_queue_front(&io->write_queue);
  443. SAFE_FREE(pbuf->base);
  444. write_queue_pop_front(&io->write_queue);
  445. }
  446. write_queue_cleanup(&io->write_queue);
  447. }
  448. void hio_free(hio_t* io) {
  449. if (io == NULL) return;
  450. hio_done(io);
  451. SAFE_FREE(io->localaddr);
  452. SAFE_FREE(io->peeraddr);
  453. SAFE_FREE(io);
  454. }
  455. hio_t* hio_get(hloop_t* loop, int fd) {
  456. if (loop->ios.maxsize == 0) {
  457. io_array_init(&loop->ios, IO_ARRAY_INIT_SIZE);
  458. }
  459. if (fd >= loop->ios.maxsize) {
  460. int newsize = ceil2e(fd);
  461. io_array_resize(&loop->ios, newsize > fd ? newsize : 2*fd);
  462. }
  463. hio_t* io = loop->ios.ptr[fd];
  464. if (io == NULL) {
  465. SAFE_ALLOC_SIZEOF(io);
  466. hio_init(io);
  467. io->loop = loop;
  468. io->fd = fd;
  469. loop->ios.ptr[fd] = io;
  470. }
  471. if (!io->ready) {
  472. hio_ready(io);
  473. }
  474. return io;
  475. }
  476. int hio_add(hio_t* io, hio_cb cb, int events) {
  477. printd("hio_add fd=%d events=%d\n", io->fd, events);
  478. hloop_t* loop = io->loop;
  479. if (!io->ready) {
  480. hio_ready(io);
  481. }
  482. if (!io->active) {
  483. EVENT_ADD(loop, io, cb);
  484. loop->nios++;
  485. }
  486. if (cb) {
  487. io->cb = (hevent_cb)cb;
  488. }
  489. iowatcher_add_event(loop, io->fd, events);
  490. io->events |= events;
  491. return 0;
  492. }
  493. int hio_del(hio_t* io, int events) {
  494. printd("hio_del fd=%d io->events=%d events=%d\n", io->fd, io->events, events);
  495. if (!io->active) return 0;
  496. iowatcher_del_event(io->loop, io->fd, events);
  497. io->events &= ~events;
  498. if (io->events == 0) {
  499. io->loop->nios--;
  500. // NOTE: not EVENT_DEL, avoid free
  501. EVENT_INACTIVE(io);
  502. hio_done(io);
  503. }
  504. return 0;
  505. }
  506. hio_t* hread(hloop_t* loop, int fd, void* buf, size_t len, hread_cb read_cb) {
  507. hio_t* io = hio_get(loop, fd);
  508. if (io == NULL) return NULL;
  509. io->readbuf.base = (char*)buf;
  510. io->readbuf.len = len;
  511. if (read_cb) {
  512. io->read_cb = read_cb;
  513. }
  514. hio_read(io);
  515. return io;
  516. }
  517. hio_t* hwrite(hloop_t* loop, int fd, const void* buf, size_t len, hwrite_cb write_cb) {
  518. hio_t* io = hio_get(loop, fd);
  519. if (io == NULL) return NULL;
  520. if (write_cb) {
  521. io->write_cb = write_cb;
  522. }
  523. hio_write(io, buf, len);
  524. return io;
  525. }
  526. hio_t* haccept(hloop_t* loop, int listenfd, haccept_cb accept_cb) {
  527. hio_t* io = hio_get(loop, listenfd);
  528. if (io == NULL) return NULL;
  529. io->accept = 1;
  530. if (accept_cb) {
  531. io->accept_cb = accept_cb;
  532. }
  533. hio_accept(io);
  534. return io;
  535. }
  536. hio_t* hconnect (hloop_t* loop, int connfd, hconnect_cb connect_cb) {
  537. hio_t* io = hio_get(loop, connfd);
  538. if (io == NULL) return NULL;
  539. io->connect = 1;
  540. if (connect_cb) {
  541. io->connect_cb = connect_cb;
  542. }
  543. hio_connect(io);
  544. return io;
  545. }
  546. hio_t* hrecv (hloop_t* loop, int connfd, void* buf, size_t len, hread_cb read_cb) {
  547. //hio_t* io = hio_get(loop, connfd);
  548. //if (io == NULL) return NULL;
  549. //io->recv = 1;
  550. //if (io->io_type != HIO_TYPE_SSL) {
  551. //io->io_type = HIO_TYPE_TCP;
  552. //}
  553. return hread(loop, connfd, buf, len, read_cb);
  554. }
  555. hio_t* hsend (hloop_t* loop, int connfd, const void* buf, size_t len, hwrite_cb write_cb) {
  556. //hio_t* io = hio_get(loop, connfd);
  557. //if (io == NULL) return NULL;
  558. //io->send = 1;
  559. //if (io->io_type != HIO_TYPE_SSL) {
  560. //io->io_type = HIO_TYPE_TCP;
  561. //}
  562. return hwrite(loop, connfd, buf, len, write_cb);
  563. }
  564. hio_t* hrecvfrom (hloop_t* loop, int sockfd, void* buf, size_t len, hread_cb read_cb) {
  565. //hio_t* io = hio_get(loop, sockfd);
  566. //if (io == NULL) return NULL;
  567. //io->recvfrom = 1;
  568. //io->io_type = HIO_TYPE_UDP;
  569. return hread(loop, sockfd, buf, len, read_cb);
  570. }
  571. hio_t* hsendto (hloop_t* loop, int sockfd, const void* buf, size_t len, hwrite_cb write_cb) {
  572. //hio_t* io = hio_get(loop, sockfd);
  573. //if (io == NULL) return NULL;
  574. //io->sendto = 1;
  575. //io->io_type = HIO_TYPE_UDP;
  576. return hwrite(loop, sockfd, buf, len, write_cb);
  577. }
  578. hio_t* create_tcp_server (hloop_t* loop, const char* host, int port, haccept_cb accept_cb) {
  579. int listenfd = Listen(port, host);
  580. if (listenfd < 0) {
  581. return NULL;
  582. }
  583. hio_t* io = haccept(loop, listenfd, accept_cb);
  584. if (io == NULL) {
  585. closesocket(listenfd);
  586. }
  587. return io;
  588. }
  589. hio_t* create_tcp_client (hloop_t* loop, const char* host, int port, hconnect_cb connect_cb) {
  590. sockaddr_un peeraddr;
  591. socklen_t addrlen = sizeof(peeraddr);
  592. memset(&peeraddr, 0, addrlen);
  593. int ret = sockaddr_assign(&peeraddr, host, port);
  594. if (ret != 0) {
  595. //printf("unknown host: %s\n", host);
  596. return NULL;
  597. }
  598. int connfd = socket(peeraddr.sa.sa_family, SOCK_STREAM, 0);
  599. if (connfd < 0) {
  600. perror("socket");
  601. return NULL;
  602. }
  603. hio_t* io = hio_get(loop, connfd);
  604. if (io == NULL) return NULL;
  605. hio_set_peeraddr(io, &peeraddr.sa, sockaddrlen(&peeraddr));
  606. hconnect(loop, connfd, connect_cb);
  607. return io;
  608. }
  609. // @server: socket -> bind -> hrecvfrom
  610. hio_t* create_udp_server(hloop_t* loop, const char* host, int port) {
  611. int bindfd = Bind(port, host, SOCK_DGRAM);
  612. if (bindfd < 0) {
  613. return NULL;
  614. }
  615. return hio_get(loop, bindfd);
  616. }
  617. // @client: Resolver -> socket -> hio_get -> hio_set_peeraddr
  618. hio_t* create_udp_client(hloop_t* loop, const char* host, int port) {
  619. sockaddr_un peeraddr;
  620. socklen_t addrlen = sizeof(peeraddr);
  621. memset(&peeraddr, 0, addrlen);
  622. int ret = sockaddr_assign(&peeraddr, host, port);
  623. if (ret != 0) {
  624. //printf("unknown host: %s\n", host);
  625. return NULL;
  626. }
  627. int sockfd = socket(peeraddr.sa.sa_family, SOCK_DGRAM, 0);
  628. if (sockfd < 0) {
  629. perror("socket");
  630. return NULL;
  631. }
  632. hio_t* io = hio_get(loop, sockfd);
  633. if (io == NULL) return NULL;
  634. hio_set_peeraddr(io, &peeraddr.sa, sockaddrlen(&peeraddr));
  635. return io;
  636. }