ioqueue-unix.c 78 KB

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  1. #include "precompile.h"
  2. #include "ioqueue.h"
  3. #include "timerqueue.h"
  4. #include "memutil.h"
  5. #include "refcnt.h"
  6. #include "strutil.h"
  7. #include "sockutil.h"
  8. #include "bus.h"
  9. #include "array.h"
  10. #include "evtpoll.h"
  11. #include <winpr/file.h>
  12. #include <winpr/handle.h>
  13. #include <winpr/synch.h>
  14. #include <winpr/pipe.h>
  15. #include <winpr/string.h>
  16. #include <winpr/wlog.h>
  17. #define TAG TOOLKIT_TAG("ioqueue")
  18. #ifndef SO_UPDATE_CONNECT_CONTEXT
  19. #define SO_UPDATE_CONNECT_CONTEXT 0x7010
  20. #endif
  21. #ifndef WSAID_CONNECTEX
  22. #define WSAID_CONNECTEX \
  23. {0x25a207b9,0xddf3,0x4660,{0x8e,0xe9,0x76,0xe5,0x8c,0x74,0x06,0x3e}}
  24. #endif
  25. #define MT_TTL 10*60*1000 /* maintenance 10 minutes */
  26. #define MT_INTERVAL 30*1000 /* maintenance 30 seconds */
  27. /* The address specified in AcceptEx() must be 16 more than the size of
  28. * SOCKADDR (source: MSDN).
  29. */
  30. #define ACCEPT_ADDR_LEN (16+sizeof(SOCKADDR))
  31. struct ioqueue_t {
  32. HANDLE iocp; //for build successfully temporary!!!!!!!!!!!!!!! TODO: delete it!!
  33. evtpoll_t* ep;
  34. void *user_data;
  35. /* timer */
  36. spinlock_t tm_queue_lock;
  37. timer_queue_t *tm_queue;
  38. /* msg handler */
  39. ioqueue_on_msg_callback msg_handlers[MAX_MSG][MAX_MSG_PRIORITY];
  40. LONG msg_cnt;
  41. /* connect */
  42. spinlock_t connect_list_lock;
  43. struct list_head connect_list;
  44. spinlock_t handler_list_lock;
  45. struct list_head handler_list;
  46. LONG stop;
  47. };
  48. typedef struct ioqueue_msg {
  49. int msg_type;
  50. int param1;
  51. int param2;
  52. HANDLE evt; /* for send message */
  53. }ioqueue_msg;
  54. #define HANDLE_TYPE_ACCEPTOR 0x01
  55. #define HANDLE_TYPE_TCPSOCK 0x02
  56. #define HANDLE_TYPE_UDPSOCK 0x03
  57. #define HANDLE_TYPE_FILE 0x04
  58. #define HANDLE_TYPE_PIPEACCEPTOR 0x05
  59. #define OV_ACCEPT 0x01
  60. #define OV_CONNECT 0x02
  61. #define OV_SENDSOME 0x03
  62. #define OV_SENDN 0x04
  63. #define OV_RECVSOME 0x05
  64. #define OV_RECVN 0x06
  65. #define OV_SENDTO 0x07
  66. #define OV_RECVFROM 0x08
  67. #define OV_READFILESOME 0x09
  68. #define OV_WRITEFILESOME 0x0a
  69. #define OV_READFILEN 0x0b
  70. #define OV_WRITEFILEN 0x0c
  71. #define OV_RECVUNTIL 0x0d
  72. #define OV_CONNECTPIPE 0x0e
  73. typedef struct ioqueue_base_overlapped_t {
  74. OVERLAPPED ov;
  75. int type;
  76. void *user_data;
  77. struct list_head pending_entry;
  78. ioqueue_handle_context *handle_ctx;
  79. }ioqueue_base_overlapped_t;
  80. typedef struct ioqueue_accept_overlapped_t {
  81. ioqueue_base_overlapped_t base;
  82. SOCKET client;
  83. ioqueue_on_accept_callback on_accept_callback;
  84. char accept_buf[2*ACCEPT_ADDR_LEN];
  85. }ioqueue_accept_overlapped_t;
  86. typedef struct ioqueue_connect_overlapped_t {
  87. ioqueue_base_overlapped_t base;
  88. ioqueue_on_connect_callback on_connect_callback;
  89. struct list_head node;
  90. HANDLE hevt;
  91. }ioqueue_connect_overlapped_t;
  92. typedef struct ioqueue_sendsome_overlapped_t {
  93. ioqueue_base_overlapped_t base;
  94. ioqueue_on_send_callback on_send_callback;
  95. WSABUF wsabuf;
  96. }ioqueue_sendsome_overlapped_t;
  97. typedef struct ioqueue_sendn_overlapped_t {
  98. ioqueue_base_overlapped_t base;
  99. ioqueue_on_send_callback on_send_callback;
  100. WSABUF wsabuf;
  101. char *original_buf;
  102. unsigned int sended_bytes;
  103. unsigned int total_bytes;
  104. }ioqueue_sendn_overlapped_t;
  105. typedef struct ioqueue_recvsome_overlapped_t {
  106. ioqueue_base_overlapped_t base;
  107. ioqueue_on_recv_callback on_recv_callback;
  108. WSABUF wsabuf;
  109. DWORD dwFlags;
  110. }ioqueue_recvsome_overlapped_t;
  111. typedef struct ioqueue_recvn_overlapped_t {
  112. ioqueue_base_overlapped_t base;
  113. ioqueue_on_recv_callback on_recv_callback;
  114. WSABUF wsabuf;
  115. char *original_buf;
  116. unsigned int recved_bytes;
  117. unsigned int total_bytes;
  118. DWORD dwFlags;
  119. }ioqueue_recvn_overlapped_t;
  120. typedef struct ioqueue_recvuntil_overlapped_t {
  121. ioqueue_base_overlapped_t base;
  122. ioqueue_on_recvuntil_callback on_recvuntil_callback;
  123. WSABUF wsabuf;
  124. char *original_buf;
  125. char *delimer;
  126. unsigned int recved_bytes;
  127. unsigned int total_bytes;
  128. DWORD dwFlags;
  129. }ioqueue_recvuntil_overlapped_t;
  130. typedef struct ioqueue_sendto_overlapped_t {
  131. ioqueue_base_overlapped_t base;
  132. ioqueue_on_sendto_callback on_sendto_callback;
  133. WSABUF wsabuf;
  134. }ioqueue_sendto_overlapped_t;
  135. typedef struct ioqueue_recvfrom_overlapped_t {
  136. ioqueue_base_overlapped_t base;
  137. ioqueue_on_recvfrom_callback on_recvfrom_callback;
  138. WSABUF wsabuf;
  139. struct sockaddr_in peer;
  140. int addrlen;
  141. DWORD dwFlags;
  142. }ioqueue_recvfrom_overlapped_t;
  143. typedef struct ioqueue_readfilesome_overlapped_t {
  144. ioqueue_base_overlapped_t base;
  145. ioqueue_on_read_callback on_read_callback;
  146. char *buf;
  147. HANDLE hevt;
  148. }ioqueue_readfilesome_overlapped_t;
  149. typedef struct ioqueue_readfilen_overlapped_t {
  150. ioqueue_base_overlapped_t base;
  151. ioqueue_on_read_callback on_read_callback;
  152. char *buf;
  153. HANDLE hevt;
  154. unsigned int recved_bytes;
  155. unsigned int total_bytes;
  156. }ioqueue_readfilen_overlapped_t;
  157. typedef struct ioqueue_writefilesome_overlapped_t {
  158. ioqueue_base_overlapped_t base;
  159. ioqueue_on_write_callback on_write_callback;
  160. HANDLE hevt;
  161. char *buf;
  162. }ioqueue_writefilesome_overlapped_t;
  163. typedef struct ioqueue_writefilen_overlapped_t {
  164. ioqueue_base_overlapped_t base;
  165. ioqueue_on_write_callback on_write_callback;
  166. char *buf;
  167. HANDLE hevt;
  168. unsigned int sended_bytes;
  169. unsigned int total_bytes;
  170. }ioqueue_writefilen_overlapped_t;
  171. typedef struct ioqueue_connectpipe_overlapped_t {
  172. ioqueue_base_overlapped_t base;
  173. HANDLE client;
  174. HANDLE hevt;
  175. ioqueue_on_pipe_accept_callback on_accept_callback;
  176. }ioqueue_connectpipe_overlapped_t;
  177. static int is_os_gte_xp() /* is os version greater and equal than xp */
  178. {
  179. static int yes = -1;
  180. #ifdef _WIN32
  181. if (yes == -1) {
  182. OSVERSIONINFO ver;
  183. ver.dwOSVersionInfoSize = sizeof(OSVERSIONINFO);
  184. GetVersionEx(&ver);
  185. if (ver.dwMajorVersion > 5 || (ver.dwMajorVersion == 5 && ver.dwMinorVersion > 0)) {
  186. yes = 1;
  187. }
  188. }
  189. #endif//_WIN32
  190. return yes;
  191. }
  192. static __inline LONG inc_msg_cnt(ioqueue_t *ioq)
  193. {
  194. return InterlockedIncrement(&ioq->msg_cnt);
  195. }
  196. static __inline LONG dec_msg_cnt(ioqueue_t *ioq)
  197. {
  198. return InterlockedDecrement(&ioq->msg_cnt);
  199. }
  200. static __inline void add_handler_list(ioqueue_handle_context *handle_ctx, ioqueue_t *ioq)
  201. {
  202. spinlock_enter(&ioq->handler_list_lock, -1);
  203. list_add(&handle_ctx->node, &ioq->handler_list);
  204. spinlock_leave(&ioq->handler_list_lock);
  205. }
  206. static __inline void del_handler_list(ioqueue_handle_context *handle_ctx, ioqueue_t *ioq)
  207. {
  208. if (handle_ctx->node.next) {
  209. spinlock_enter(&ioq->handler_list_lock, -1);
  210. list_del(&handle_ctx->node);
  211. handle_ctx->node.next = handle_ctx->node.prev = NULL;
  212. spinlock_leave(&ioq->handler_list_lock);
  213. }
  214. }
  215. static void ioqueue_handle_context_free(ioqueue_handle_context *handle_ctx)
  216. {
  217. if (handle_ctx->type == HANDLE_TYPE_UDPSOCK
  218. || handle_ctx->type == HANDLE_TYPE_TCPSOCK
  219. || handle_ctx->type == HANDLE_TYPE_ACCEPTOR) {
  220. if (handle_ctx->u.sock != INVALID_SOCKET) {
  221. closesocket(handle_ctx->u.sock);
  222. handle_ctx->u.sock = INVALID_SOCKET;
  223. }
  224. } else if (handle_ctx->type == HANDLE_TYPE_FILE) {
  225. if (handle_ctx->u.file != INVALID_HANDLE_VALUE) {
  226. CloseHandle(handle_ctx->u.file);
  227. handle_ctx->u.file = INVALID_HANDLE_VALUE;
  228. }
  229. } else if (handle_ctx->type == HANDLE_TYPE_PIPEACCEPTOR) {
  230. if (handle_ctx->u.pipe_name) {
  231. free(handle_ctx->u.pipe_name);
  232. handle_ctx->u.pipe_name = NULL;
  233. }
  234. } else {
  235. assert(0);
  236. return;
  237. }
  238. del_handler_list(handle_ctx, handle_ctx->owner);
  239. }
  240. IMPLEMENT_REF_COUNT_MT(ioqueue_handle_context, ioqueue_handle_context, pending_ios, ioqueue_handle_context_free)
  241. static __inline LONG inc_pending_io(ioqueue_handle_context *handle_ctx)
  242. {
  243. return inc_ref(ioqueue_handle_context, handle_ctx);
  244. }
  245. static __inline LONG dec_pending_io(ioqueue_handle_context *handle_ctx)
  246. {
  247. return dec_ref(ioqueue_handle_context, handle_ctx);
  248. }
  249. static SOCKET new_socket()
  250. {
  251. SOCKET sock = WSASocket(AF_INET, SOCK_STREAM, IPPROTO_TCP,
  252. NULL, 0, WSA_FLAG_OVERLAPPED);
  253. if (sock != INVALID_SOCKET) {
  254. reuse_addr(sock);
  255. }
  256. return sock;
  257. }
  258. static void delete_socket(SOCKET sock)
  259. {
  260. LINGER l;
  261. l.l_onoff = 1;
  262. l.l_linger = 0;
  263. setsockopt(sock, SOL_SOCKET, SO_LINGER, (char*)&l, sizeof(l));
  264. closesocket(sock);
  265. }
  266. TOOLKIT_API ioqueue_t *ioqueue_create()
  267. {
  268. ioqueue_t *ioq = ZALLOC_T(ioqueue_t);
  269. if (!ioq)
  270. return NULL;
  271. ioq->ep = evtpoll_create();
  272. if (!ioq->ep) {
  273. goto on_error_0;
  274. }
  275. if (timer_heap_create(&ioq->tm_queue) != 0) {
  276. goto on_error_3;
  277. }
  278. spinlock_init(&ioq->tm_queue_lock);
  279. spinlock_init(&ioq->connect_list_lock);
  280. INIT_LIST_HEAD(&ioq->connect_list);
  281. spinlock_init(&ioq->handler_list_lock);
  282. INIT_LIST_HEAD(&ioq->handler_list);
  283. return ioq;
  284. on_error_3:
  285. evtpoll_destroy(ioq->ep);
  286. on_error_0:
  287. free(ioq);
  288. return NULL;
  289. }
  290. TOOLKIT_API void ioqueue_destroy(ioqueue_t *ioq)
  291. {
  292. assert(ioq);
  293. assert(ioqueue_handler_empty(ioq));
  294. assert(ioqueue_msg_empty(ioq));
  295. timer_queue_destroy(ioq->tm_queue);
  296. evtpoll_destroy(ioq->ep);
  297. free(ioq);
  298. }
  299. TOOLKIT_API int ioqueue_handler_empty(ioqueue_t *ioq)
  300. {
  301. int ret;
  302. assert(ioq);
  303. spinlock_enter(&ioq->handler_list_lock, -1);
  304. ret = list_empty(&ioq->handler_list);
  305. spinlock_leave(&ioq->handler_list_lock);
  306. return ret;
  307. }
  308. TOOLKIT_API int ioqueue_msg_empty(ioqueue_t *ioq)
  309. {
  310. assert(ioq);
  311. return ioq->msg_cnt == 0;
  312. }
  313. TOOLKIT_API int ioqueue_msg_add_handler(ioqueue_t *ioq, int msg_type, int priority, ioqueue_on_msg_callback cb)
  314. {
  315. assert(ioq);
  316. assert(cb);
  317. assert(msg_type >= 0 && msg_type <= MAX_MSG);
  318. assert(priority >= 0 && priority <= MAX_MSG_PRIORITY);
  319. ioq->msg_handlers[msg_type][priority] = cb;
  320. return 0;
  321. }
  322. TOOLKIT_API int ioqueue_msg_remove_handler(ioqueue_t *ioq, int msg_type, int priority)
  323. {
  324. assert(ioq);
  325. assert(msg_type >= 0 && msg_type <= MAX_MSG);
  326. assert(priority >= 0 && priority <= MAX_MSG_PRIORITY);
  327. ioq->msg_handlers[msg_type][priority] = NULL;
  328. return 0;
  329. }
  330. static void dispatch_acceptor(int err,
  331. DWORD dwBytesTransfer,
  332. ioqueue_acceptor_t *acceptor,
  333. ioqueue_accept_overlapped_t *overlapped)
  334. {
  335. ioqueue_t *ioq = acceptor->owner;
  336. if (err == 0) {
  337. /* only valid for winxp or later, ignore return value */
  338. setsockopt(overlapped->client, SOL_SOCKET, SO_UPDATE_ACCEPT_CONTEXT,
  339. (char*)&acceptor->u.sock, sizeof(SOCKET));
  340. } else {
  341. delete_socket(overlapped->client);
  342. overlapped->client = INVALID_SOCKET;
  343. }
  344. {
  345. SOCKET s = overlapped->client;
  346. int accepted = overlapped->on_accept_callback(acceptor, (ioqueue_overlapped_t*)overlapped, s,
  347. overlapped->base.user_data, err);
  348. if (!err && !accepted && s != INVALID_SOCKET)
  349. delete_socket(s);
  350. }
  351. }
  352. static void dispatch_pipe_acceptor(int err,
  353. DWORD dwBytesTransfer,
  354. ioqueue_pipe_acceptor_t *acceptor,
  355. ioqueue_connectpipe_overlapped_t *overlapped)
  356. {
  357. ioqueue_t *ioq = acceptor->owner;
  358. int accepted;
  359. CloseHandle(overlapped->hevt);
  360. overlapped->hevt = NULL;
  361. if (!err && overlapped->client == INVALID_HANDLE_VALUE)
  362. err = -1;
  363. if (err) {
  364. if (overlapped->client != INVALID_HANDLE_VALUE) {
  365. CloseHandle(overlapped->client);
  366. overlapped->client = INVALID_HANDLE_VALUE;
  367. }
  368. }
  369. accepted = overlapped->on_accept_callback(acceptor,
  370. (ioqueue_overlapped_t*)overlapped,
  371. overlapped->client,
  372. overlapped->base.user_data, err);
  373. if (!err && !accepted && overlapped->client != INVALID_HANDLE_VALUE) {
  374. CloseHandle(overlapped->client);
  375. }
  376. }
  377. static int pre_dispatch_network(BOOL* ret, DWORD* dwBytesTransfer, ioqueue_overlapped_t* io_ctx)
  378. {
  379. int err = 0;
  380. ioqueue_base_overlapped_t* base_ov = (ioqueue_base_overlapped_t*)io_ctx;
  381. ioqueue_handle_context* handle_ctx = base_ov->handle_ctx;
  382. if (ret) *ret = FALSE;
  383. switch (handle_ctx->type) {
  384. case HANDLE_TYPE_ACCEPTOR:
  385. {
  386. SOCKET conn_socket;
  387. struct sockaddr_in addr;
  388. socklen_t addrlen;
  389. assert(((ioqueue_accept_overlapped_t*)io_ctx)->client == INVALID_SOCKET);
  390. addrlen = sizeof(addr);
  391. bzero(&addr, addrlen);
  392. conn_socket = accept(handle_ctx->u.sock, (struct sockaddr*) & addr, &addrlen);
  393. if (conn_socket == -1) {
  394. WLog_ERR(TAG, "accept connect socket failed: %d", errno);
  395. return -1;
  396. }
  397. WLog_INFO(TAG, "new connected socket fd(%d) arrived at listen socket: %d from %s:%d",
  398. conn_socket, handle_ctx->u.sock, inet_ntoa(addr.sin_addr), ntohs(addr.sin_port));
  399. ((ioqueue_accept_overlapped_t*)io_ctx)->client = conn_socket;
  400. if (ret) *ret = TRUE;
  401. if (dwBytesTransfer) *dwBytesTransfer = 0;
  402. err = 1;
  403. }
  404. break;
  405. case HANDLE_TYPE_PIPEACCEPTOR:
  406. break;
  407. case HANDLE_TYPE_TCPSOCK:
  408. case HANDLE_TYPE_UDPSOCK:
  409. case HANDLE_TYPE_FILE:
  410. switch (base_ov->type) {
  411. case OV_CONNECT: //暂时没有看到该事件的使用
  412. break;
  413. case OV_SENDSOME: {
  414. }
  415. break;
  416. case OV_SENDN: {
  417. int n, nwrite;
  418. ioqueue_recvn_overlapped_t* overlapped = (ioqueue_recvn_overlapped_t*)io_ctx;
  419. ioqueue_tcpsock_t* tcpsock = overlapped->base.handle_ctx;
  420. n = 0;
  421. for (; n < overlapped->wsabuf.len; ) {
  422. do
  423. {
  424. nwrite = write(tcpsock->u.sock, overlapped->wsabuf.buf + n, overlapped->wsabuf.len - n);
  425. } while (nwrite <0 && errno == EINTR);
  426. if (nwrite == 0) {
  427. WLog_WARN(TAG, "OV_SENDN: remote socket exit.");
  428. break;
  429. }
  430. else if (nwrite < 0) {
  431. if (errno == EAGAIN || errno == EWOULDBLOCK) {
  432. nwrite = 0;
  433. }
  434. else {
  435. WLog_ERR(TAG, "write error: %s(%d)", strerror(errno), errno);
  436. }
  437. break;
  438. }
  439. else {
  440. n += nwrite;
  441. }
  442. }
  443. WLog_INFO(TAG, "<OV_SENDN>: total_write: %d/%d, cur_send: %d", n, overlapped->wsabuf.len, nwrite);
  444. if (ret) {
  445. *ret = (n == 0 && nwrite <= 0) ? FALSE : TRUE;
  446. }
  447. if (dwBytesTransfer) *dwBytesTransfer = n;
  448. err = 1;
  449. }
  450. break;
  451. case OV_RECVSOME: {
  452. }
  453. break;
  454. case OV_RECVUNTIL: {
  455. }
  456. break;
  457. case OV_RECVN: {
  458. int n, nread;
  459. ioqueue_recvn_overlapped_t* overlapped = (ioqueue_recvn_overlapped_t*)io_ctx;
  460. ioqueue_tcpsock_t* tcpsock = overlapped->base.handle_ctx;
  461. n = 0;
  462. for (; n < overlapped->wsabuf.len;)
  463. {
  464. do
  465. {
  466. nread = _recv(tcpsock->u.sock, overlapped->wsabuf.buf + n, overlapped->wsabuf.len - n, 0);
  467. } while (nread < 0 && errno == EINTR);
  468. if (nread > 0) {
  469. n += nread;
  470. continue;
  471. }
  472. if (nread == 0) {
  473. /*remote socket break*/
  474. WLog_WARN(TAG, "OV_RECVN: remote socket exit.");
  475. break;
  476. } else if (errno == EAGAIN || errno == EWOULDBLOCK) {
  477. nread = 0;
  478. break;
  479. } else {
  480. WLog_ERR(TAG, "read error: %s(%d)", strerror(errno), errno);
  481. break;
  482. }
  483. }
  484. WLog_INFO(TAG, "<OV_RECVN>: total_recv: %d/%d, cur_recv: %d", n, overlapped->wsabuf.len, nread);
  485. if (ret) {//TRUE means correct
  486. *ret = (n == 0 && nread <= 0) ? FALSE : TRUE;
  487. }
  488. if (dwBytesTransfer) *dwBytesTransfer = n;
  489. err = 1;
  490. }
  491. break;
  492. case OV_SENDTO: {
  493. }
  494. break;
  495. case OV_RECVFROM: {
  496. }
  497. break;
  498. case OV_READFILESOME: {
  499. }
  500. break;
  501. case OV_READFILEN: {
  502. }
  503. break;
  504. case OV_WRITEFILESOME: {
  505. }
  506. break;
  507. case OV_WRITEFILEN: {
  508. }
  509. break;
  510. }
  511. break;
  512. default:
  513. assert(0);
  514. break;
  515. }
  516. return err;
  517. }
  518. static void dispatch_network(BOOL ret, DWORD dwBytesTransfer, ioqueue_overlapped_t *io_ctx)
  519. {
  520. int err = ret ? 0 : -1; //-1 means error
  521. ioqueue_base_overlapped_t *base_ov = (ioqueue_base_overlapped_t*)io_ctx;
  522. ioqueue_handle_context *handle_ctx = base_ov->handle_ctx;
  523. fastlock_enter(handle_ctx->ov_pending_list_lock);
  524. list_del(&base_ov->pending_entry);
  525. fastlock_leave(handle_ctx->ov_pending_list_lock);
  526. dec_pending_io(handle_ctx);
  527. switch (handle_ctx->type) {
  528. case HANDLE_TYPE_ACCEPTOR:
  529. dispatch_acceptor(err, dwBytesTransfer, handle_ctx, (ioqueue_accept_overlapped_t*)io_ctx);
  530. break;
  531. case HANDLE_TYPE_PIPEACCEPTOR:
  532. dispatch_pipe_acceptor(err, dwBytesTransfer, handle_ctx, (ioqueue_connectpipe_overlapped_t*)io_ctx);
  533. break;
  534. case HANDLE_TYPE_TCPSOCK:
  535. case HANDLE_TYPE_UDPSOCK:
  536. case HANDLE_TYPE_FILE:
  537. switch (base_ov->type) {
  538. case OV_CONNECT: {
  539. ioqueue_connect_overlapped_t *overlapped = (ioqueue_connect_overlapped_t*)io_ctx;
  540. if (err == 0) {
  541. setsockopt(handle_ctx->u.sock, SOL_SOCKET, SO_UPDATE_CONNECT_CONTEXT, NULL, 0);
  542. }
  543. overlapped->on_connect_callback(handle_ctx, io_ctx, base_ov->user_data, err);
  544. }
  545. break;
  546. case OV_SENDSOME: {
  547. ioqueue_sendsome_overlapped_t *overlapped = (ioqueue_sendsome_overlapped_t*)io_ctx;
  548. overlapped->on_send_callback(handle_ctx, io_ctx,
  549. overlapped->wsabuf.buf, dwBytesTransfer, base_ov->user_data, err);
  550. }
  551. break;
  552. case OV_SENDN: {
  553. ioqueue_sendn_overlapped_t *overlapped = (ioqueue_sendn_overlapped_t*)io_ctx;
  554. overlapped->sended_bytes += dwBytesTransfer;
  555. if (err == 0 && overlapped->sended_bytes < overlapped->total_bytes) {
  556. ioqueue_tcpsock_t* tcpsock = overlapped->base.handle_ctx;
  557. overlapped->wsabuf.buf += dwBytesTransfer;
  558. overlapped->wsabuf.len -= dwBytesTransfer;
  559. inc_pending_io(handle_ctx);
  560. overlapped->base.ov.Internal = 0;
  561. overlapped->base.ov.InternalHigh = 0;
  562. overlapped->base.ov.Offset = 0;
  563. overlapped->base.ov.OffsetHigh = 0;
  564. ioqueue_overlapped_set_mask(io_ctx, sizeof(ioqueue_sendn_overlapped_t));
  565. WLog_WARN(TAG, "OV_SENDN: Must be due with this situation %d < %d", overlapped->sended_bytes, overlapped->total_bytes);
  566. evtpoll_subscribe(ioqueue_tcpsock_get_owned_ioqueue(tcpsock)->ep, EV_WRITE, tcpsock->u.sock, NULL, io_ctx);
  567. //if (rc != 0 && WSAGetLastError() != WSA_IO_PENDING) {
  568. // dec_pending_io(handle_ctx);
  569. // overlapped->on_send_callback(handle_ctx, io_ctx, overlapped->original_buf,
  570. // overlapped->sended_bytes, base_ov->user_data, -1);
  571. //}
  572. } else {
  573. ioqueue_tcpsock_t* tcpsock = overlapped->base.handle_ctx;
  574. evtpoll_unsubscribe(ioqueue_tcpsock_get_owned_ioqueue(tcpsock)->ep, EV_WRITE, tcpsock->u.sock, 0);
  575. overlapped->on_send_callback(handle_ctx, io_ctx, overlapped->original_buf,
  576. overlapped->sended_bytes, base_ov->user_data, err);
  577. }
  578. }
  579. break;
  580. case OV_RECVSOME: {
  581. ioqueue_recvsome_overlapped_t *overlapped = (ioqueue_recvsome_overlapped_t*)io_ctx;
  582. overlapped->on_recv_callback(handle_ctx, io_ctx, overlapped->wsabuf.buf,
  583. dwBytesTransfer, base_ov->user_data, err);
  584. }
  585. break;
  586. case OV_RECVUNTIL: {
  587. ioqueue_recvuntil_overlapped_t *overlapped = (ioqueue_recvuntil_overlapped_t*)io_ctx;
  588. if (err == 0 && dwBytesTransfer) {
  589. const char *pos;
  590. overlapped->recved_bytes += dwBytesTransfer;
  591. pos = memstr(overlapped->original_buf, overlapped->recved_bytes, overlapped->delimer);
  592. if (pos) {
  593. free(overlapped->delimer);
  594. overlapped->on_recvuntil_callback(handle_ctx, io_ctx, overlapped->original_buf,
  595. overlapped->recved_bytes, (int)strlen(overlapped->delimer)+(int)(pos-overlapped->original_buf),
  596. base_ov->user_data, err);
  597. } else if (overlapped->recved_bytes < overlapped->total_bytes) {
  598. DWORD bytesRead;
  599. int rc;
  600. overlapped->wsabuf.buf += dwBytesTransfer;
  601. overlapped->wsabuf.len -= dwBytesTransfer;
  602. inc_pending_io(handle_ctx);
  603. overlapped->base.ov.Internal = 0;
  604. overlapped->base.ov.InternalHigh = 0;
  605. overlapped->base.ov.Offset = 0;
  606. overlapped->base.ov.OffsetHigh = 0;
  607. overlapped->dwFlags = 0;
  608. ioqueue_overlapped_set_mask(io_ctx, sizeof(ioqueue_recvuntil_overlapped_t));
  609. rc = WSARecv(handle_ctx->u.sock, &overlapped->wsabuf, 1, &bytesRead, &overlapped->dwFlags,
  610. &overlapped->base.ov, NULL);
  611. if (rc != 0 && WSAGetLastError() != WSA_IO_PENDING) {
  612. dec_pending_io(handle_ctx);
  613. free(overlapped->delimer);
  614. overlapped->on_recvuntil_callback(handle_ctx, io_ctx, overlapped->original_buf,
  615. overlapped->recved_bytes, 0, base_ov->user_data, -1);
  616. }
  617. } else {
  618. free(overlapped->delimer);
  619. overlapped->on_recvuntil_callback(handle_ctx, io_ctx, overlapped->original_buf,
  620. overlapped->recved_bytes, 0, base_ov->user_data, -1);
  621. }
  622. } else {
  623. free(overlapped->delimer);
  624. overlapped->on_recvuntil_callback(handle_ctx, io_ctx, overlapped->original_buf,
  625. overlapped->recved_bytes, 0, base_ov->user_data, err);
  626. }
  627. }
  628. break;
  629. case OV_RECVN: {
  630. ioqueue_recvn_overlapped_t *overlapped = (ioqueue_recvn_overlapped_t*)io_ctx;
  631. overlapped->recved_bytes += dwBytesTransfer;
  632. if (err == 0 && overlapped->recved_bytes < overlapped->total_bytes) {
  633. ioqueue_tcpsock_t* tcpsock = overlapped->base.handle_ctx;
  634. overlapped->wsabuf.buf += dwBytesTransfer;
  635. overlapped->wsabuf.len -= dwBytesTransfer;
  636. inc_pending_io(handle_ctx);
  637. overlapped->base.ov.Internal = 0;
  638. overlapped->base.ov.InternalHigh = 0;
  639. overlapped->base.ov.Offset = 0;
  640. overlapped->base.ov.OffsetHigh = 0;
  641. overlapped->dwFlags = 0;
  642. ioqueue_overlapped_set_mask(io_ctx, sizeof(ioqueue_recvn_overlapped_t));
  643. WLog_WARN(TAG, "OV_RECVN: Must be due with this situation %d < %d", overlapped->recved_bytes, overlapped->total_bytes);
  644. evtpoll_subscribe(ioqueue_tcpsock_get_owned_ioqueue(tcpsock)->ep, EV_READ, tcpsock->u.sock, io_ctx, NULL);
  645. //if (rc != 0 && WSAGetLastError() != WSA_IO_PENDING) {
  646. // dec_pending_io(handle_ctx);
  647. // overlapped->on_recv_callback(handle_ctx, io_ctx, overlapped->original_buf,
  648. // overlapped->recved_bytes, base_ov->user_data, -1);
  649. //}
  650. } else {
  651. overlapped->on_recv_callback(handle_ctx, io_ctx, overlapped->original_buf,
  652. overlapped->recved_bytes, base_ov->user_data, err);
  653. }
  654. }
  655. break;
  656. case OV_SENDTO: {
  657. ioqueue_sendto_overlapped_t *overlapped = (ioqueue_sendto_overlapped_t*)io_ctx;
  658. overlapped->on_sendto_callback(handle_ctx, io_ctx, overlapped->wsabuf.buf,
  659. dwBytesTransfer, base_ov->user_data, err);
  660. }
  661. break;
  662. case OV_RECVFROM: {
  663. ioqueue_recvfrom_overlapped_t *overlapped = (ioqueue_recvfrom_overlapped_t*)io_ctx;
  664. overlapped->on_recvfrom_callback(handle_ctx, io_ctx, (struct sockaddr*)&overlapped->peer,
  665. overlapped->addrlen, overlapped->wsabuf.buf, dwBytesTransfer, base_ov->user_data, err);
  666. }
  667. break;
  668. case OV_READFILESOME: {
  669. ioqueue_readfilesome_overlapped_t *overlapped = (ioqueue_readfilesome_overlapped_t*)io_ctx;
  670. CloseHandle(overlapped->hevt);
  671. overlapped->hevt = NULL;
  672. overlapped->on_read_callback(handle_ctx, io_ctx, overlapped->buf,
  673. dwBytesTransfer, base_ov->user_data, err);
  674. }
  675. break;
  676. case OV_READFILEN: {
  677. ioqueue_readfilen_overlapped_t *overlapped = (ioqueue_readfilen_overlapped_t*)io_ctx;
  678. CloseHandle(overlapped->hevt);
  679. overlapped->hevt = NULL;
  680. overlapped->recved_bytes += dwBytesTransfer;
  681. if (err == 0 && overlapped->recved_bytes < overlapped->total_bytes) {
  682. BOOL ret;
  683. DWORD left = overlapped->total_bytes - overlapped->recved_bytes;
  684. inc_pending_io(handle_ctx);
  685. overlapped->base.ov.Internal = 0;
  686. overlapped->base.ov.InternalHigh = 0;
  687. overlapped->base.ov.Offset += dwBytesTransfer;
  688. if (overlapped->base.ov.Offset < dwBytesTransfer)
  689. overlapped->base.ov.OffsetHigh += 1;
  690. ioqueue_overlapped_set_mask(io_ctx, sizeof(ioqueue_readfilen_overlapped_t));
  691. ret = ReadFile(handle_ctx->u.file, overlapped->buf+overlapped->recved_bytes, left, NULL, &overlapped->base.ov);
  692. if (!ret && GetLastError() != ERROR_IO_PENDING) {
  693. dec_pending_io(handle_ctx);
  694. overlapped->on_read_callback(handle_ctx, io_ctx, overlapped->buf,
  695. overlapped->recved_bytes, base_ov->user_data, -1);
  696. }
  697. } else {
  698. overlapped->on_read_callback(handle_ctx, io_ctx, overlapped->buf,
  699. overlapped->recved_bytes, base_ov->user_data, err);
  700. }
  701. }
  702. break;
  703. case OV_WRITEFILESOME: {
  704. ioqueue_writefilesome_overlapped_t *overlapped = (ioqueue_writefilesome_overlapped_t*)io_ctx;
  705. CloseHandle(overlapped->hevt);
  706. overlapped->hevt = NULL;
  707. overlapped->on_write_callback(handle_ctx, io_ctx, overlapped->buf, dwBytesTransfer,
  708. base_ov->user_data, err);
  709. }
  710. break;
  711. case OV_WRITEFILEN: {
  712. ioqueue_writefilen_overlapped_t *overlapped = (ioqueue_writefilen_overlapped_t*)io_ctx;
  713. CloseHandle(overlapped->hevt);
  714. overlapped->hevt = NULL;
  715. overlapped->sended_bytes += dwBytesTransfer;
  716. if (err == 0 && overlapped->sended_bytes < overlapped->total_bytes) {
  717. BOOL ret;
  718. DWORD left = overlapped->total_bytes - overlapped->sended_bytes;
  719. inc_pending_io(handle_ctx);
  720. overlapped->base.ov.Internal = 0;
  721. overlapped->base.ov.InternalHigh = 0;
  722. overlapped->base.ov.Offset += dwBytesTransfer;
  723. if (overlapped->base.ov.Offset < dwBytesTransfer)
  724. overlapped->base.ov.OffsetHigh += 1;
  725. ioqueue_overlapped_set_mask(io_ctx, sizeof(ioqueue_writefilen_overlapped_t));
  726. ret = WriteFile(handle_ctx->u.file, overlapped->buf+overlapped->sended_bytes, left, NULL, &overlapped->base.ov);
  727. if (!ret && GetLastError() != ERROR_IO_PENDING) {
  728. dec_pending_io(handle_ctx);
  729. overlapped->on_write_callback(handle_ctx, io_ctx, overlapped->buf,
  730. overlapped->sended_bytes, base_ov->user_data, -1);
  731. }
  732. } else {
  733. overlapped->on_write_callback(handle_ctx, io_ctx, overlapped->buf,
  734. overlapped->sended_bytes, base_ov->user_data, err);
  735. }
  736. }
  737. break;
  738. default:
  739. assert(0);
  740. break;
  741. }
  742. break;
  743. default:
  744. assert(0);
  745. break;
  746. }
  747. }
  748. static void dispatch_msg(ioqueue_t *ioq, int msg_type, int param1, int param2, HANDLE evt)
  749. {
  750. int chain = 1, i;
  751. for (i = 0; chain && i < MAX_MSG_PRIORITY; ++i) {
  752. ioqueue_on_msg_callback cb = ioq->msg_handlers[msg_type][i];
  753. if (cb)
  754. chain = cb(msg_type, param1, param2);
  755. }
  756. if (evt)
  757. SetEvent(evt);
  758. }
  759. TOOLKIT_API int ioqueue_post_message(ioqueue_t *ioq, int msg_type, int param1, int param2)
  760. {
  761. ioqueue_msg *msg;
  762. assert(ioq);
  763. msg = MALLOC_T(ioqueue_msg);
  764. msg->msg_type = msg_type;
  765. msg->param1 = param1;
  766. msg->param2 = param2;
  767. msg->evt = NULL;
  768. inc_msg_cnt(ioq);
  769. if (!PostQueuedCompletionStatus(ioq->iocp, 0, (ULONG_PTR)msg, NULL)) {
  770. dec_msg_cnt(ioq);
  771. free(msg);
  772. return -1;
  773. }
  774. return 0;
  775. }
  776. TOOLKIT_API int ioqueue_send_message(ioqueue_t *ioq, int msg_type, int param1, int param2)
  777. {
  778. ioqueue_msg msg = {msg_type, param1, param2};
  779. assert(ioq);
  780. msg.evt = CreateEventA(NULL, TRUE, FALSE, NULL);
  781. inc_msg_cnt(ioq);
  782. if (!PostQueuedCompletionStatus(ioq->iocp, 0, (ULONG_PTR)&msg, NULL)) {
  783. CloseHandle(msg.evt);
  784. dec_msg_cnt(ioq);
  785. return -1;
  786. }
  787. WaitForSingleObject(msg.evt, INFINITE);
  788. CloseHandle(msg.evt);
  789. dec_msg_cnt(ioq);
  790. return 0;
  791. }
  792. static int poll_all_events(ioqueue_t *ioq, HANDLE *hevts, ioqueue_connect_overlapped_t **ovs, int i)
  793. {
  794. int count = 0;
  795. int left = i;
  796. int pos = 0;
  797. while (left > 0) {
  798. DWORD idx = WaitForMultipleObjects(left, &hevts[pos], FALSE, 0) - WAIT_OBJECT_0;
  799. if (idx <= (DWORD)left && idx >= 0) {
  800. WSANETWORKEVENTS net_events;
  801. ioqueue_connect_overlapped_t *triggered = ovs[idx+pos];
  802. list_del(&triggered->node);
  803. WSAEnumNetworkEvents(triggered->base.handle_ctx->u.sock, hevts[idx+pos], &net_events);
  804. WSAEventSelect(triggered->base.handle_ctx->u.sock, hevts[idx+pos], 0);
  805. CloseHandle(hevts[idx+pos]);
  806. triggered->on_connect_callback(triggered->base.handle_ctx, (ioqueue_overlapped_t*)triggered,
  807. triggered->base.user_data, net_events.iErrorCode[FD_CONNECT_BIT] == 0 ? 0 : -1);
  808. left -= (int)idx + 1;
  809. pos += idx+1;
  810. count ++;
  811. } else {
  812. break;
  813. }
  814. }
  815. return count;
  816. }
  817. static int poll_connect_list(ioqueue_t *ioq)
  818. {
  819. int count = 0, i = 0;
  820. HANDLE hevts[MAXIMUM_WAIT_OBJECTS];
  821. ioqueue_connect_overlapped_t *ovs[MAXIMUM_WAIT_OBJECTS];
  822. ioqueue_connect_overlapped_t *pos, *n;
  823. list_for_each_entry_safe(pos, n, &ioq->connect_list, ioqueue_connect_overlapped_t, node) {
  824. hevts[i] = pos->hevt;
  825. ovs[i] = pos;
  826. i++;
  827. if (i == MAXIMUM_WAIT_OBJECTS) {
  828. count += poll_all_events(ioq, hevts, ovs, i);
  829. i = 0;
  830. }
  831. }
  832. if (i > 0) {
  833. count += poll_all_events(ioq, hevts, ovs, i);
  834. }
  835. return count;
  836. }
  837. TOOLKIT_API void* ioqueue_set_user_data(ioqueue_t* ioq, void* user_data)
  838. {
  839. void* old;
  840. assert(ioq);
  841. old = ioq->user_data;
  842. ioq->user_data = user_data;
  843. return old;
  844. }
  845. TOOLKIT_API void* ioqueue_get_user_data(ioqueue_t* ioq)
  846. {
  847. assert(ioq);
  848. return ioq->user_data;
  849. }
  850. TOOLKIT_API int ioqueue_poll(ioqueue_t* q, int timeout)
  851. {
  852. ioqueue_t *ioq = (ioqueue_t*)q;
  853. int count = 0, t = 0;
  854. int nfds = 0, i = 0;
  855. bus_daemon_t* deamon;
  856. struct epoll_event events[MAX_EPOLL_EVENT];
  857. deamon = (bus_daemon_t*)ioqueue_get_user_data(ioq);
  858. assert(deamon != NULL);
  859. /* network and msg, dispatch until no events */
  860. do
  861. {
  862. BOOL ret;
  863. DWORD dwBytesTransfer = 0;
  864. t = 0;
  865. //有时会出现惊群的问题!!
  866. nfds = evtpoll_wait(ioq->ep, events, MAX_EPOLL_EVENT, t ? 0 : timeout);
  867. if (nfds < 0) {
  868. break;
  869. }
  870. for (i = 0; i < nfds; ++i) {
  871. struct epoll_event* pe;
  872. int n = 1;
  873. pe = events + i;
  874. WLog_INFO(TAG, "poll events[%d]::fd(0x%08X) OUT:%d, IN:%d", i, pe->data.fd
  875. , pe->events & EPOLLOUT ? 1: 0 ,pe->events & EPOLLIN ? 1: 0);
  876. while (n >= 0) {
  877. ioqueue_overlapped_t* io_ctx = NULL;
  878. n = evtpoll_deal(ioq->ep, pe, &io_ctx, 1);
  879. if (!n) {
  880. assert(io_ctx);
  881. pre_dispatch_network(&ret, &dwBytesTransfer, io_ctx);
  882. dispatch_network(ret, dwBytesTransfer, io_ctx);
  883. t++;
  884. count++;
  885. }
  886. }
  887. }
  888. } while (t > 0);
  889. /* win2k connect event */
  890. if (!is_os_gte_xp()) {
  891. spinlock_enter(&ioq->connect_list_lock, -1);
  892. poll_connect_list(ioq);
  893. spinlock_leave(&ioq->connect_list_lock);
  894. }
  895. /* timer heap */
  896. spinlock_enter(&ioq->tm_queue_lock, -1);
  897. count += timer_queue_poll(ioq->tm_queue, NULL); /* dispatch timer heap */
  898. spinlock_leave(&ioq->tm_queue_lock);
  899. if (ioq->stop == -1) {
  900. if (InterlockedCompareExchange(&ioq->stop, -2, -1) == -1) { /* close all handler */
  901. ioqueue_handle_context *pos, *n;
  902. spinlock_enter(&ioq->handler_list_lock, -1);
  903. list_for_each_entry_safe(pos, n, &ioq->handler_list, ioqueue_handle_context, node) {
  904. if (pos->type != HANDLE_TYPE_FILE) {
  905. closesocket(pos->u.sock);
  906. pos->u.sock = INVALID_SOCKET;
  907. } else {
  908. CloseHandle(pos->u.file);
  909. pos->u.file = INVALID_HANDLE_VALUE;
  910. }
  911. }
  912. spinlock_leave(&ioq->handler_list_lock);
  913. }
  914. }
  915. return count;
  916. }
  917. TOOLKIT_API void ioqueue_stop(ioqueue_t *ioq)
  918. {
  919. assert(ioq);
  920. ioq->stop = -1;
  921. }
  922. /* timer */
  923. TOOLKIT_API int ioqueue_timer_schedule(ioqueue_t *ioq, timer_entry *entry, unsigned int delay)
  924. {
  925. int err;
  926. assert(ioq);
  927. assert(entry);
  928. if (ioq->stop)
  929. return -1;
  930. spinlock_enter(&ioq->tm_queue_lock, -1);
  931. err = timer_queue_schedule(ioq->tm_queue, entry, delay);
  932. spinlock_leave(&ioq->tm_queue_lock);
  933. return err;
  934. }
  935. TOOLKIT_API int ioqueue_timer_cancel(ioqueue_t *ioq, timer_entry *entry, int cancel)
  936. {
  937. int err;
  938. assert(ioq);
  939. assert(entry);
  940. spinlock_enter(&ioq->tm_queue_lock, -1);
  941. err = timer_queue_cancel(ioq->tm_queue, entry, cancel);
  942. spinlock_leave(&ioq->tm_queue_lock);
  943. return err;
  944. }
  945. /* acceptor */
  946. TOOLKIT_API int ioqueue_acceptor_create(ioqueue_t *ioq,
  947. const char *ip,
  948. unsigned short port,
  949. ioqueue_acceptor_t* acceptor)
  950. {
  951. WLog_INFO(TAG, "==> %s", __FUNCTION__);
  952. struct sockaddr_in service = {0};
  953. assert(ioq);
  954. assert(acceptor);
  955. assert(port);
  956. if (ioq->stop) {
  957. WLog_INFO(TAG, "<== %s", __FUNCTION__);
  958. return -1;
  959. }
  960. memset(acceptor, 0, sizeof(ioqueue_acceptor_t));
  961. /*Warning: only the front third params are effective !!*/
  962. acceptor->u.sock = WSASocket(AF_INET, SOCK_STREAM, IPPROTO_TCP, NULL, 0, WSA_FLAG_OVERLAPPED);
  963. if (acceptor->u.sock == INVALID_SOCKET) {
  964. WLog_ERR(TAG, "accept socket create failed: %s", strerror(errno));
  965. goto on_error;
  966. }
  967. nonblock_sock(acceptor->u.sock);
  968. service.sin_family = AF_INET;
  969. service.sin_port = htons(port);
  970. service.sin_addr.s_addr = ip ? inet_addr(ip) : htonl(INADDR_ANY);
  971. if (bind(acceptor->u.sock, (struct sockaddr*) & service, sizeof(struct sockaddr)) != 0) {
  972. WLog_ERR(TAG, "bind sockect %d failed: %s", acceptor->u.sock, strerror(errno));
  973. goto on_error;
  974. }
  975. if (evtpoll_attach(ioq->ep, acceptor->u.sock)) {
  976. goto on_error;
  977. }
  978. acceptor->type = HANDLE_TYPE_ACCEPTOR;
  979. acceptor->owner = ioq;
  980. fastlock_init(acceptor->ov_pending_list_lock);
  981. INIT_LIST_HEAD(&acceptor->ov_pending_list);
  982. add_handler_list(acceptor, ioq);
  983. inc_ref(ioqueue_handle_context, acceptor);
  984. WLog_INFO(TAG, "<== normal %s", __FUNCTION__);
  985. return 0;
  986. on_error:
  987. if (acceptor->u.sock != INVALID_SOCKET)
  988. closesocket(acceptor->u.sock);
  989. WLog_INFO(TAG, "<== error %s", __FUNCTION__);
  990. return -1;
  991. }
  992. TOOLKIT_API int ioqueue_acceptor_listen(ioqueue_acceptor_t* acceptor, int backlog)
  993. {
  994. assert(acceptor);
  995. return listen(acceptor->u.sock, backlog);
  996. }
  997. TOOLKIT_API void ioqueue_acceptor_destroy(ioqueue_acceptor_t* acceptor)
  998. {
  999. assert(acceptor);
  1000. dec_ref(ioqueue_handle_context, acceptor);
  1001. }
  1002. TOOLKIT_API void ioqueue_acceptor_close(ioqueue_acceptor_t* acceptor)
  1003. {
  1004. SOCKET s;
  1005. assert(acceptor);
  1006. s = acceptor->u.sock;
  1007. if (s != INVALID_SOCKET) {
  1008. acceptor->u.sock = INVALID_SOCKET;
  1009. closesocket(s);
  1010. }
  1011. }
  1012. TOOLKIT_API int ioqueue_acceptor_async_accept(ioqueue_acceptor_t* acceptor,
  1013. ioqueue_overlapped_t *ov,
  1014. ioqueue_on_accept_callback on_accept_callback,
  1015. void *user_data)
  1016. {
  1017. ioqueue_t *ioq;
  1018. ioqueue_accept_overlapped_t *overlapped;
  1019. DWORD bytesTransfer;
  1020. BOOL ret;
  1021. assert(acceptor);
  1022. assert(ov);
  1023. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  1024. assert(on_accept_callback);
  1025. ioq = acceptor->owner;
  1026. if (ioq->stop)
  1027. return -1;
  1028. overlapped = (ioqueue_accept_overlapped_t*)ov;
  1029. memset(overlapped, 0, sizeof(ioqueue_accept_overlapped_t));
  1030. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_accept_overlapped_t));
  1031. overlapped->client = INVALID_SOCKET;
  1032. fastlock_enter(acceptor->ov_pending_list_lock);
  1033. list_add_tail(&overlapped->base.pending_entry, &acceptor->ov_pending_list);
  1034. fastlock_leave(acceptor->ov_pending_list_lock);
  1035. overlapped->base.type = OV_ACCEPT;
  1036. overlapped->base.user_data = user_data;
  1037. overlapped->base.handle_ctx = acceptor;
  1038. inc_pending_io(acceptor);
  1039. overlapped->on_accept_callback = on_accept_callback;
  1040. ret = evtpoll_subscribe(ioq->ep, EV_ACCEPT, acceptor->u.sock, ov, NULL);
  1041. if (ret == 0) {
  1042. WLog_INFO(TAG, "acceptor subscribes accept event succ.");
  1043. return 0;
  1044. }
  1045. WLog_ERR(TAG, "acceptor: epoll_ctl failed error: %d ", ret);
  1046. fastlock_enter(acceptor->ov_pending_list_lock);
  1047. list_del(&overlapped->base.pending_entry);
  1048. fastlock_leave(acceptor->ov_pending_list_lock);
  1049. dec_pending_io(acceptor);
  1050. return -1;
  1051. }
  1052. TOOLKIT_API int ioqueue_acceptor_accept(ioqueue_acceptor_t* acceptor, SOCKET *s, struct sockaddr *addr, int *addrlen, int timeout)
  1053. {
  1054. struct timeval tm;
  1055. fd_set set;
  1056. fd_set ex_set;
  1057. int rc;
  1058. FD_ZERO(&set);
  1059. FD_ZERO(&ex_set);
  1060. FD_SET(acceptor->u.sock, &set);
  1061. FD_SET(acceptor->u.sock, &ex_set);
  1062. tm.tv_sec = timeout / 1000;
  1063. tm.tv_usec = 1000 * (timeout % 1000);
  1064. rc = select(acceptor->u.sock+1, &set, NULL, &ex_set, &tm);
  1065. if (rc > 0) {
  1066. if (FD_ISSET(acceptor->u.sock, &ex_set))
  1067. return -1;
  1068. if (FD_ISSET(acceptor->u.sock, &set)) {
  1069. SOCKET fd = accept(acceptor->u.sock, addr, addrlen);
  1070. if (fd != INVALID_SOCKET) {
  1071. *s = fd;
  1072. return 0;
  1073. }
  1074. }
  1075. }
  1076. return -1;
  1077. }
  1078. TOOLKIT_API int ioqueue_acceptor_create_client(ioqueue_acceptor_t* acceptor, SOCKET s, ioqueue_tcpsock_t *tcpsock)
  1079. {
  1080. ioqueue_t *ioq;
  1081. assert(acceptor);
  1082. assert(tcpsock);
  1083. assert(s != INVALID_SOCKET);
  1084. ioq = acceptor->owner;
  1085. if (ioq->stop)
  1086. return -1;
  1087. memset(tcpsock, 0, sizeof(ioqueue_tcpsock_t));
  1088. tcpsock->type = HANDLE_TYPE_TCPSOCK;
  1089. tcpsock->u.sock = s;
  1090. tcpsock->owner = ioq;
  1091. tcpsock->user_data = NULL;
  1092. fastlock_init(tcpsock->ov_pending_list_lock);
  1093. INIT_LIST_HEAD(&tcpsock->ov_pending_list);
  1094. if (0 != evtpoll_attach(ioq->ep, s)) {
  1095. return -1;
  1096. }
  1097. add_handler_list(tcpsock, ioq);
  1098. inc_ref(ioqueue_handle_context, tcpsock);
  1099. WLog_DBG(TAG, "create a tcp session, fd=%d", s);
  1100. return 0;
  1101. }
  1102. TOOLKIT_API SOCKET ioqueue_acceptor_get_raw_socket(ioqueue_acceptor_t* acceptor)
  1103. {
  1104. assert(acceptor);
  1105. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  1106. assert(acceptor->u.sock != INVALID_SOCKET);
  1107. return acceptor->u.sock;
  1108. }
  1109. TOOLKIT_API ioqueue_t* ioqueue_acceptor_get_owned_ioqueue(ioqueue_acceptor_t* acceptor)
  1110. {
  1111. assert(acceptor);
  1112. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  1113. return acceptor->owner;
  1114. }
  1115. TOOLKIT_API void *ioqueue_acceptor_set_user_data(ioqueue_acceptor_t* acceptor, void *user_data)
  1116. {
  1117. void *old;
  1118. assert(acceptor);
  1119. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  1120. old = acceptor->user_data;
  1121. acceptor->user_data = user_data;
  1122. return old;
  1123. }
  1124. TOOLKIT_API void *ioqueue_acceptor_get_user_data(ioqueue_acceptor_t* acceptor)
  1125. {
  1126. assert(acceptor);
  1127. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  1128. return acceptor->user_data;
  1129. }
  1130. TOOLKIT_API int ioqueue_acceptor_cancel(ioqueue_acceptor_t* acceptor)
  1131. {
  1132. assert(acceptor);
  1133. return CancelIo(acceptor->u.file) ? 0 : -1;
  1134. }
  1135. /* tcpsock */
  1136. TOOLKIT_API int ioqueue_tcpsock_create(ioqueue_t *ioq, ioqueue_tcpsock_t *tcpsock)
  1137. {
  1138. SOCKET s;
  1139. assert(ioq);
  1140. assert(tcpsock);
  1141. if (ioq->stop)
  1142. return -1;
  1143. s = WSASocket(AF_INET, SOCK_STREAM, IPPROTO_TCP, NULL, 0, WSA_FLAG_OVERLAPPED);
  1144. if (s == INVALID_SOCKET)
  1145. return -1;
  1146. if (ioqueue_tcpsock_create_from_handle(ioq, s, tcpsock) != 0) {
  1147. closesocket(s);
  1148. return -1;
  1149. }
  1150. return 0;
  1151. }
  1152. TOOLKIT_API int ioqueue_tcpsock_create_from_handle(ioqueue_t *ioq, SOCKET s, ioqueue_tcpsock_t *tcpsock)
  1153. {
  1154. assert(ioq);
  1155. assert(s != INVALID_SOCKET);
  1156. assert(tcpsock);
  1157. if (ioq->stop)
  1158. return -1;
  1159. memset(tcpsock, 0, sizeof(ioqueue_tcpsock_t));
  1160. tcpsock->u.sock = s;
  1161. reuse_addr(tcpsock->u.sock);
  1162. nonblock_sock(tcpsock->u.sock);
  1163. /* winxp or more we use ConnectEx, this funtion need bind at first */
  1164. if (is_os_gte_xp()) {
  1165. struct sockaddr_in local = {0};
  1166. local.sin_family = AF_INET;
  1167. local.sin_port = htons(0);
  1168. local.sin_addr.s_addr = INADDR_ANY;
  1169. if (bind(tcpsock->u.sock, (struct sockaddr*)&local, sizeof(struct sockaddr)) != 0)
  1170. return -1;
  1171. } else {
  1172. /* for win2k we use connect, set socket to non-block mode */
  1173. //u_long ul_onoff = 1;
  1174. //if (ioctlsocket(tcpsock->u.sock, FIONBIO, &ul_onoff) != 0)
  1175. // goto on_error;
  1176. }
  1177. if (!CreateIoCompletionPort((HANDLE)tcpsock->u.sock, ioq->iocp, 0, 0))
  1178. return -1;
  1179. fastlock_init(tcpsock->ov_pending_list_lock);
  1180. INIT_LIST_HEAD(&tcpsock->ov_pending_list);
  1181. tcpsock->type = HANDLE_TYPE_TCPSOCK;
  1182. tcpsock->owner = ioq;
  1183. add_handler_list(tcpsock, ioq);
  1184. inc_ref(ioqueue_handle_context, tcpsock);
  1185. return 0;
  1186. }
  1187. TOOLKIT_API int ioqueue_tcpsock_async_connect(ioqueue_tcpsock_t *tcpsock,
  1188. ioqueue_overlapped_t *ov,
  1189. const char *ip,
  1190. unsigned short port,
  1191. ioqueue_on_connect_callback on_connect_callback,
  1192. void* user_data)
  1193. {
  1194. ioqueue_t *ioq;
  1195. ioqueue_connect_overlapped_t *overlapped;
  1196. struct sockaddr_in service;
  1197. assert(tcpsock);
  1198. assert(ov);
  1199. assert(ip);
  1200. assert(port);
  1201. assert(on_connect_callback);
  1202. ioq = tcpsock->owner;
  1203. if (ioq->stop)
  1204. return -1;
  1205. ioq = tcpsock->owner;
  1206. overlapped = (ioqueue_connect_overlapped_t*)ov;
  1207. memset(overlapped, 0, sizeof(ioqueue_connect_overlapped_t));
  1208. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_connect_overlapped_t));
  1209. fastlock_enter(tcpsock->ov_pending_list_lock);
  1210. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1211. fastlock_leave(tcpsock->ov_pending_list_lock);
  1212. overlapped->base.type = OV_CONNECT;
  1213. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1214. overlapped->base.user_data = user_data;
  1215. overlapped->on_connect_callback = on_connect_callback;
  1216. inc_pending_io(tcpsock);
  1217. if (is_os_gte_xp()) { /* use ConnectEx */
  1218. DWORD dwBytes;
  1219. BOOL ret;
  1220. BOOL (PASCAL FAR * lpfnConnectEx) (IN SOCKET s,
  1221. IN const struct sockaddr FAR *name,
  1222. IN int namelen,
  1223. IN PVOID lpSendBuffer OPTIONAL,
  1224. IN DWORD dwSendDataLength,
  1225. OUT LPDWORD lpdwBytesSent,
  1226. IN LPOVERLAPPED lpOverlapped
  1227. );
  1228. // LPFN_CONNECTEX lpfnConnectEx;
  1229. GUID GuidConnectEx = WSAID_CONNECTEX;
  1230. if (WSAIoctl(tcpsock->u.sock, SIO_GET_EXTENSION_FUNCTION_POINTER, &GuidConnectEx,
  1231. sizeof(GuidConnectEx), &lpfnConnectEx, sizeof(lpfnConnectEx), &dwBytes, NULL, NULL) != 0) {
  1232. fastlock_enter(tcpsock->ov_pending_list_lock);
  1233. list_del(&overlapped->base.pending_entry);
  1234. fastlock_leave(tcpsock->ov_pending_list_lock);
  1235. dec_pending_io(tcpsock);
  1236. return -1;
  1237. }
  1238. memset(&service, 0, sizeof(service));
  1239. service.sin_family = AF_INET;
  1240. service.sin_port = htons(port);
  1241. service.sin_addr.s_addr = inet_addr(ip);
  1242. {
  1243. struct sockaddr_in local_addr = {0}; // bind to a INADDR_ANY and port 0 to let OS choose an local address
  1244. local_addr.sin_family = AF_INET;
  1245. local_addr.sin_addr.s_addr = htonl(INADDR_ANY);
  1246. local_addr.sin_port = htons(0);
  1247. ret = bind(tcpsock->u.sock, (SOCKADDR*)&local_addr, sizeof(local_addr)); // caution: ConnectEx need socket to be bounded at first
  1248. }
  1249. if (ret == 0) {
  1250. ret = lpfnConnectEx(tcpsock->u.sock, (struct sockaddr*)&service, sizeof(service), NULL,
  1251. 0, NULL, &overlapped->base.ov);
  1252. if (ret || WSAGetLastError() == WSA_IO_PENDING)
  1253. return 0;
  1254. }
  1255. } else { /* use non-blocking connect */
  1256. overlapped->hevt = WSACreateEvent();
  1257. if (WSAEventSelect(tcpsock->u.sock, overlapped->hevt, FD_CONNECT) == 0) {
  1258. spinlock_enter(&ioq->connect_list_lock, -1);
  1259. list_add_tail(&overlapped->node, &ioq->connect_list);
  1260. spinlock_leave(&ioq->connect_list_lock);
  1261. if (connect(tcpsock->u.sock, (struct sockaddr*)&service, sizeof(service)) == 0) {
  1262. return 0;
  1263. } else {
  1264. spinlock_enter(&ioq->connect_list_lock, -1);
  1265. list_del(&overlapped->node);
  1266. spinlock_leave(&ioq->connect_list_lock);
  1267. }
  1268. }
  1269. WSACloseEvent(overlapped->hevt);
  1270. }
  1271. fastlock_enter(tcpsock->ov_pending_list_lock);
  1272. list_del(&overlapped->base.pending_entry);
  1273. fastlock_leave(tcpsock->ov_pending_list_lock);
  1274. dec_pending_io(tcpsock);
  1275. return -1;
  1276. }
  1277. TOOLKIT_API int ioqueue_tcpsock_conect(ioqueue_tcpsock_t *tcpsock,
  1278. const char *ip,
  1279. unsigned short port,
  1280. int timeout)
  1281. {
  1282. fd_set wr_set;
  1283. fd_set ex_set;
  1284. struct timeval tm;
  1285. assert(tcpsock);
  1286. assert(ip);
  1287. assert(port > 0);
  1288. FD_ZERO(&wr_set);
  1289. FD_ZERO(&ex_set);
  1290. FD_SET(tcpsock->u.sock, &wr_set);
  1291. FD_SET(tcpsock->u.sock, &ex_set);
  1292. tm.tv_sec = timeout / 1000;
  1293. tm.tv_usec = 1000 * (timeout % 1000);
  1294. if (select(tcpsock->u.sock+1, NULL, &wr_set, &ex_set, &tm) > 0) {
  1295. if (FD_ISSET(tcpsock->u.sock, &ex_set))
  1296. return -1;
  1297. if (FD_ISSET(tcpsock->u.sock, &wr_set))
  1298. return 0;
  1299. }
  1300. return -1;
  1301. }
  1302. TOOLKIT_API int ioqueue_tcpsock_async_sendsome(ioqueue_tcpsock_t *tcpsock,
  1303. ioqueue_overlapped_t *ov,
  1304. void *buf,
  1305. unsigned int len,
  1306. ioqueue_on_send_callback on_send_callback,
  1307. void *user_data)
  1308. {
  1309. ioqueue_sendsome_overlapped_t *overlapped;
  1310. DWORD bytesWritten;
  1311. int rc;
  1312. ioqueue_t *ioq;
  1313. assert(tcpsock);
  1314. assert(ov);
  1315. assert(buf);
  1316. assert(on_send_callback);
  1317. ioq = ioqueue_tcpsock_get_owned_ioqueue(tcpsock);
  1318. if (ioq->stop)
  1319. return -1;
  1320. overlapped = (ioqueue_sendsome_overlapped_t*)ov;
  1321. memset(overlapped, 0, sizeof(ioqueue_sendsome_overlapped_t));
  1322. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_sendsome_overlapped_t));
  1323. fastlock_enter(tcpsock->ov_pending_list_lock);
  1324. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1325. fastlock_leave(tcpsock->ov_pending_list_lock);
  1326. overlapped->base.type = OV_SENDSOME;
  1327. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1328. overlapped->base.user_data = user_data;
  1329. overlapped->on_send_callback = on_send_callback;
  1330. overlapped->wsabuf.len = len;
  1331. overlapped->wsabuf.buf = buf;
  1332. inc_pending_io(tcpsock);
  1333. rc = WSASend(tcpsock->u.sock, &overlapped->wsabuf, 1, &bytesWritten,
  1334. 0, &overlapped->base.ov, NULL);
  1335. if (rc == 0 || WSAGetLastError() == WSA_IO_PENDING)
  1336. return 0;
  1337. fastlock_enter(tcpsock->ov_pending_list_lock);
  1338. list_del(&overlapped->base.pending_entry);
  1339. fastlock_leave(tcpsock->ov_pending_list_lock);
  1340. dec_pending_io(tcpsock);
  1341. return -1;
  1342. }
  1343. TOOLKIT_API int ioqueue_tcpsock_async_sendn(ioqueue_tcpsock_t *tcpsock,
  1344. ioqueue_overlapped_t *ov,
  1345. void *buf,
  1346. unsigned int len,
  1347. ioqueue_on_send_callback on_send_callback,
  1348. void* user_data)
  1349. {
  1350. ioqueue_sendn_overlapped_t *overlapped;
  1351. DWORD bytesWritten;
  1352. int rc;
  1353. ioqueue_t *ioq;
  1354. assert(tcpsock);
  1355. assert(ov);
  1356. assert(buf);
  1357. assert(on_send_callback);
  1358. ioq = ioqueue_tcpsock_get_owned_ioqueue(tcpsock);
  1359. if (ioq->stop)
  1360. return -1;
  1361. WLog_INFO(TAG, "fd(%d): ioqueue_tcpsock_async_sendn fired: buf len: %d", tcpsock->u.sock, len);
  1362. overlapped = (ioqueue_sendn_overlapped_t*)ov;
  1363. memset(overlapped, 0, sizeof(ioqueue_sendn_overlapped_t));
  1364. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_sendn_overlapped_t));
  1365. fastlock_enter(tcpsock->ov_pending_list_lock);
  1366. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1367. fastlock_leave(tcpsock->ov_pending_list_lock);
  1368. overlapped->base.type = OV_SENDN;
  1369. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1370. overlapped->base.user_data = user_data;
  1371. overlapped->on_send_callback = on_send_callback;
  1372. overlapped->wsabuf.len = len;
  1373. overlapped->wsabuf.buf = buf;
  1374. overlapped->original_buf = buf;
  1375. overlapped->sended_bytes = 0;
  1376. overlapped->total_bytes = len;
  1377. inc_pending_io(tcpsock);
  1378. rc = evtpoll_subscribe(ioq->ep, EV_WRITE, tcpsock->u.sock, NULL, ov);
  1379. if (!rc) {
  1380. return 0;
  1381. }
  1382. WLog_ERR(TAG, "epoll_ctl for write failed return: %d", rc);
  1383. fastlock_enter(tcpsock->ov_pending_list_lock);
  1384. list_del(&overlapped->base.pending_entry);
  1385. fastlock_leave(tcpsock->ov_pending_list_lock);
  1386. dec_pending_io(tcpsock);
  1387. return -1;
  1388. }
  1389. TOOLKIT_API int ioqueue_tcpsock_async_senduntil(ioqueue_tcpsock_t *tcpsock,
  1390. ioqueue_overlapped_t *ov,
  1391. void *buf,
  1392. unsigned int len,
  1393. const char *delimer,
  1394. ioqueue_on_send_callback on_send_cb,
  1395. void* user_data)
  1396. {
  1397. const char *p;
  1398. assert(tcpsock);
  1399. assert(ov);
  1400. assert(buf);
  1401. assert(on_send_cb);
  1402. assert(delimer);
  1403. p = memstr(buf, len, delimer);
  1404. if (!p)
  1405. return -1;
  1406. p += strlen(delimer);
  1407. return ioqueue_tcpsock_async_sendn(tcpsock, ov, buf, p - (char*)buf, on_send_cb, user_data);
  1408. }
  1409. TOOLKIT_API int ioqueue_tcpsock_sendsome(ioqueue_tcpsock_t *tcpsock,
  1410. void *buf,
  1411. unsigned int len,
  1412. int timeout)
  1413. {
  1414. assert(tcpsock);
  1415. return send(tcpsock->u.sock, buf, len, 0);
  1416. }
  1417. TOOLKIT_API int ioqueue_tcpsock_sendn(ioqueue_tcpsock_t *tcpsock,
  1418. void *buf,
  1419. unsigned int len,
  1420. int timeout)
  1421. {
  1422. return tsend_n(tcpsock->u.sock, buf, len, timeout);
  1423. }
  1424. TOOLKIT_API int ioqueue_tcpsock_senduntil(ioqueue_tcpsock_t *tcpsock,
  1425. void *buf,
  1426. unsigned int len,
  1427. const char *delimer,
  1428. int timeout)
  1429. {
  1430. return tsend_until(tcpsock->u.sock, buf, len, delimer, timeout);
  1431. }
  1432. TOOLKIT_API int ioqueue_tcpsock_async_recvsome(ioqueue_tcpsock_t *tcpsock,
  1433. ioqueue_overlapped_t *ov,
  1434. void *buf,
  1435. unsigned int len,
  1436. ioqueue_on_recv_callback on_recv_callback,
  1437. void *user_data)
  1438. {
  1439. ioqueue_recvsome_overlapped_t *overlapped;
  1440. DWORD bytesRead;
  1441. int rc;
  1442. ioqueue_t *ioq;
  1443. assert(tcpsock);
  1444. assert(ov);
  1445. assert(buf);
  1446. assert(on_recv_callback);
  1447. ioq = tcpsock->owner;
  1448. if (ioq->stop)
  1449. return -1;
  1450. overlapped = (ioqueue_recvsome_overlapped_t*)ov;
  1451. memset(overlapped, 0, sizeof(ioqueue_recvsome_overlapped_t));
  1452. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_recvsome_overlapped_t));
  1453. fastlock_enter(tcpsock->ov_pending_list_lock);
  1454. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1455. fastlock_leave(tcpsock->ov_pending_list_lock);
  1456. overlapped->base.type = OV_RECVSOME;
  1457. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1458. overlapped->base.user_data = user_data;
  1459. overlapped->on_recv_callback = on_recv_callback;
  1460. overlapped->wsabuf.len = len;
  1461. overlapped->wsabuf.buf = buf;
  1462. overlapped->dwFlags = 0;
  1463. inc_pending_io(tcpsock);
  1464. rc = WSARecv(tcpsock->u.sock, &overlapped->wsabuf, 1, &bytesRead, &overlapped->dwFlags,
  1465. &overlapped->base.ov, NULL);
  1466. if (rc == 0 || WSAGetLastError() == WSA_IO_PENDING)
  1467. return 0;
  1468. fastlock_enter(tcpsock->ov_pending_list_lock);
  1469. list_del(&overlapped->base.pending_entry);
  1470. fastlock_leave(tcpsock->ov_pending_list_lock);
  1471. dec_pending_io(tcpsock);
  1472. return -1;
  1473. }
  1474. TOOLKIT_API int ioqueue_tcpsock_async_recvn(ioqueue_tcpsock_t *tcpsock,
  1475. ioqueue_overlapped_t *ov,
  1476. void *buf,
  1477. unsigned int len,
  1478. ioqueue_on_recv_callback on_recv_callback,
  1479. void *user_data)
  1480. {
  1481. ioqueue_recvn_overlapped_t *overlapped;
  1482. DWORD bytesRead;
  1483. int rc;
  1484. ioqueue_t *ioq;
  1485. assert(tcpsock);
  1486. assert(ov);
  1487. assert(buf);
  1488. assert(on_recv_callback);
  1489. ioq = tcpsock->owner;
  1490. if (ioq->stop)
  1491. return -1;
  1492. overlapped = (ioqueue_recvn_overlapped_t*)ov;
  1493. memset(overlapped, 0, sizeof(ioqueue_recvn_overlapped_t));
  1494. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_recvn_overlapped_t));
  1495. fastlock_enter(tcpsock->ov_pending_list_lock);
  1496. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1497. fastlock_leave(tcpsock->ov_pending_list_lock);
  1498. overlapped->base.type = OV_RECVN;
  1499. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1500. overlapped->base.user_data = user_data;
  1501. overlapped->on_recv_callback = on_recv_callback;
  1502. overlapped->wsabuf.len = len;
  1503. overlapped->wsabuf.buf = buf;
  1504. overlapped->original_buf = buf;
  1505. overlapped->recved_bytes = 0;
  1506. overlapped->total_bytes = len;
  1507. overlapped->dwFlags = 0;
  1508. inc_pending_io(tcpsock);
  1509. rc = evtpoll_subscribe(ioq->ep, EV_READ, tcpsock->u.sock, ov, NULL);
  1510. if (!rc) {
  1511. return 0;
  1512. }
  1513. WLog_ERR(TAG, "epoll_ctl for read failed return: %d", rc);
  1514. fastlock_enter(tcpsock->ov_pending_list_lock);
  1515. list_del(&overlapped->base.pending_entry);
  1516. fastlock_leave(tcpsock->ov_pending_list_lock);
  1517. dec_pending_io(tcpsock);
  1518. return -1;
  1519. }
  1520. TOOLKIT_API int ioqueue_tcpsock_async_recvuntil(ioqueue_tcpsock_t *tcpsock,
  1521. ioqueue_overlapped_t *ov,
  1522. void *buf,
  1523. unsigned int len,
  1524. const char *delimer,
  1525. ioqueue_on_recvuntil_callback on_recvuntil_callback,
  1526. void *user_data)
  1527. {
  1528. ioqueue_recvuntil_overlapped_t *overlapped;
  1529. DWORD bytesRead;
  1530. int rc;
  1531. ioqueue_t *ioq;
  1532. assert(tcpsock);
  1533. assert(ov);
  1534. assert(buf);
  1535. assert(delimer);
  1536. assert(on_recvuntil_callback);
  1537. ioq = tcpsock->owner;
  1538. if (ioq->stop)
  1539. return -1;
  1540. overlapped = (ioqueue_recvuntil_overlapped_t*)ov;
  1541. memset(overlapped, 0, sizeof(ioqueue_recvuntil_overlapped_t));
  1542. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_recvuntil_overlapped_t));
  1543. fastlock_enter(tcpsock->ov_pending_list_lock);
  1544. list_add_tail(&overlapped->base.pending_entry, &tcpsock->ov_pending_list);
  1545. fastlock_leave(tcpsock->ov_pending_list_lock);
  1546. overlapped->base.type = OV_RECVUNTIL;
  1547. overlapped->base.handle_ctx = (ioqueue_handle_context*)tcpsock;
  1548. overlapped->base.user_data = user_data;
  1549. overlapped->on_recvuntil_callback = on_recvuntil_callback;
  1550. overlapped->wsabuf.len = len;
  1551. overlapped->wsabuf.buf = buf;
  1552. overlapped->original_buf = buf;
  1553. overlapped->recved_bytes = 0;
  1554. overlapped->total_bytes = len;
  1555. overlapped->delimer = _strdup(delimer);
  1556. overlapped->dwFlags = 0;
  1557. inc_pending_io(tcpsock);
  1558. rc = WSARecv(tcpsock->u.sock, &overlapped->wsabuf, 1, &bytesRead, &overlapped->dwFlags,
  1559. &overlapped->base.ov, NULL);
  1560. if (rc == 0 || WSAGetLastError() == WSA_IO_PENDING)
  1561. return 0;
  1562. fastlock_enter(tcpsock->ov_pending_list_lock);
  1563. list_del(&overlapped->base.pending_entry);
  1564. fastlock_leave(tcpsock->ov_pending_list_lock);
  1565. dec_pending_io(tcpsock);
  1566. return -1;
  1567. }
  1568. TOOLKIT_API int ioqueue_tcpsock_recvsome(ioqueue_tcpsock_t *tcpsock,
  1569. void *buf,
  1570. unsigned int len,
  1571. int timeout)
  1572. {
  1573. return recv(tcpsock->u.sock, buf, len, 0);
  1574. }
  1575. TOOLKIT_API int ioqueue_tcpsock_recvn(ioqueue_tcpsock_t *tcpsock,
  1576. void *buf,
  1577. unsigned int len,
  1578. int timeout)
  1579. {
  1580. return trecv_n(tcpsock->u.sock, buf, len, timeout);
  1581. }
  1582. TOOLKIT_API int ioqueue_tcpsock_recvuntil(ioqueue_tcpsock_t *tcpsock,
  1583. void *buf,
  1584. unsigned int len,
  1585. const char *delimer,
  1586. unsigned int *header_len,
  1587. int timeout)
  1588. {
  1589. return trecv_until(tcpsock->u.sock, buf, len, delimer, header_len, timeout);
  1590. }
  1591. TOOLKIT_API void ioqueue_tcpsock_close(ioqueue_tcpsock_t *tcpsock)
  1592. {
  1593. SOCKET s;
  1594. assert(tcpsock);
  1595. s = tcpsock->u.sock;
  1596. if (s != INVALID_SOCKET) {
  1597. tcpsock->u.sock = INVALID_SOCKET;
  1598. closesocket(s);
  1599. }
  1600. }
  1601. TOOLKIT_API void ioqueue_tcpsock_destroy(ioqueue_tcpsock_t *tcpsock)
  1602. {
  1603. assert(tcpsock);
  1604. dec_ref(ioqueue_handle_context, tcpsock);
  1605. }
  1606. TOOLKIT_API int ioqueue_tcpsock_shutdown(ioqueue_tcpsock_t *tcpsock, int how)
  1607. {
  1608. assert(tcpsock);
  1609. return shutdown(tcpsock->u.sock, how);
  1610. }
  1611. TOOLKIT_API SOCKET ioqueue_tcpsock_get_raw_socket(ioqueue_tcpsock_t *tcpsock)
  1612. {
  1613. assert(tcpsock);
  1614. return tcpsock->u.sock;
  1615. }
  1616. TOOLKIT_API ioqueue_t* ioqueue_tcpsock_get_owned_ioqueue(ioqueue_tcpsock_t *tcpsock)
  1617. {
  1618. assert(tcpsock);
  1619. return tcpsock->owner;
  1620. }
  1621. TOOLKIT_API void *ioqueue_tcpsock_set_user_data(ioqueue_tcpsock_t *tcpsock, void *user_data)
  1622. {
  1623. void *old;
  1624. assert(tcpsock);
  1625. old = tcpsock->user_data;
  1626. tcpsock->user_data = user_data;
  1627. return old;
  1628. }
  1629. TOOLKIT_API void *ioqueue_tcpsock_get_user_data(ioqueue_tcpsock_t *tcpsock)
  1630. {
  1631. assert(tcpsock);
  1632. return tcpsock->user_data;
  1633. }
  1634. TOOLKIT_API int ioqueue_tcpsock_cancel(ioqueue_tcpsock_t* tcpsock)
  1635. {
  1636. assert(tcpsock);
  1637. return CancelIo(tcpsock->u.file) ? 0 : -1;
  1638. }
  1639. /* udpsock */
  1640. TOOLKIT_API int ioqueue_udpsock_create(ioqueue_t *ioq, ioqueue_udpsock_t *udpsock)
  1641. {
  1642. SOCKET s;
  1643. assert(ioq);
  1644. assert(udpsock);
  1645. if (ioq->stop)
  1646. return -1;
  1647. s = WSASocket(AF_INET, SOCK_DGRAM, IPPROTO_UDP, NULL, 0, WSA_FLAG_OVERLAPPED);
  1648. if (s == INVALID_SOCKET)
  1649. return -1;
  1650. if (ioqueue_udpsock_create_from_handle(ioq, s, udpsock) != 0) {
  1651. closesocket(s);
  1652. return -1;
  1653. }
  1654. return 0;
  1655. }
  1656. TOOLKIT_API int ioqueue_udpsock_create_from_handle(ioqueue_t *ioq, SOCKET s, ioqueue_udpsock_t *udpsock)
  1657. {
  1658. assert(ioq);
  1659. assert(udpsock);
  1660. assert(s != INVALID_SOCKET);
  1661. if (ioq->stop)
  1662. return -1;
  1663. memset(udpsock, 0, sizeof(ioqueue_udpsock_t));
  1664. udpsock->u.sock = s;
  1665. nonblock_sock(udpsock->u.sock);
  1666. if (!CreateIoCompletionPort((HANDLE)udpsock->u.sock, ioq->iocp, 0, 0))
  1667. return -1;
  1668. fastlock_init(udpsock->ov_pending_list_lock);
  1669. INIT_LIST_HEAD(&udpsock->ov_pending_list);
  1670. udpsock->type = HANDLE_TYPE_UDPSOCK;
  1671. udpsock->owner = ioq;
  1672. add_handler_list(udpsock, ioq);
  1673. inc_ref(ioqueue_handle_context, udpsock);
  1674. return 0;
  1675. }
  1676. TOOLKIT_API void ioqueue_udpsock_close(ioqueue_udpsock_t *udpsock)
  1677. {
  1678. SOCKET s;
  1679. assert(udpsock);
  1680. s = udpsock->u.sock;
  1681. if (s != INVALID_SOCKET) {
  1682. udpsock->u.sock = INVALID_SOCKET;
  1683. closesocket(s);
  1684. }
  1685. }
  1686. TOOLKIT_API void ioqueue_udpsock_destroy(ioqueue_udpsock_t *udpsock)
  1687. {
  1688. assert(udpsock);
  1689. dec_ref(ioqueue_handle_context, udpsock);
  1690. }
  1691. TOOLKIT_API int ioqueue_udpsock_async_sendto(ioqueue_udpsock_t* udpsock,
  1692. ioqueue_overlapped_t *ov,
  1693. void *buf,
  1694. int len,
  1695. const struct sockaddr* to,
  1696. int tolen,
  1697. ioqueue_on_sendto_callback on_sendto_callback,
  1698. void *user_data)
  1699. {
  1700. ioqueue_sendto_overlapped_t *overlapped;
  1701. int rc;
  1702. DWORD bytesWritten;
  1703. ioqueue_t *ioq;
  1704. assert(udpsock);
  1705. assert(ov);
  1706. assert(buf);
  1707. assert(to);
  1708. assert(on_sendto_callback);
  1709. assert(ov);
  1710. ioq = udpsock->owner;
  1711. if (ioq->stop)
  1712. return -1;
  1713. overlapped = (ioqueue_sendto_overlapped_t*)ov;
  1714. memset(overlapped, 0, sizeof(ioqueue_sendto_overlapped_t));
  1715. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_sendto_overlapped_t));
  1716. fastlock_enter(udpsock->ov_pending_list_lock);
  1717. list_add_tail(&overlapped->base.pending_entry, &udpsock->ov_pending_list);
  1718. fastlock_leave(udpsock->ov_pending_list_lock);
  1719. overlapped->base.type = OV_SENDTO;
  1720. overlapped->base.user_data = user_data;
  1721. overlapped->base.handle_ctx = (ioqueue_handle_context*)udpsock;
  1722. overlapped->on_sendto_callback = on_sendto_callback;
  1723. overlapped->wsabuf.len = len;
  1724. overlapped->wsabuf.buf = buf;
  1725. inc_pending_io(udpsock);
  1726. rc = WSASendTo(udpsock->u.sock, &overlapped->wsabuf, 1, &bytesWritten, 0,
  1727. to, tolen, &overlapped->base.ov, NULL);
  1728. if (rc == 0 || WSAGetLastError() == WSA_IO_PENDING)
  1729. return 0;
  1730. fastlock_enter(udpsock->ov_pending_list_lock);
  1731. list_del(&overlapped->base.pending_entry);
  1732. fastlock_leave(udpsock->ov_pending_list_lock);
  1733. dec_pending_io(udpsock);
  1734. return -1;
  1735. }
  1736. TOOLKIT_API int ioqueue_udpsock_sendto(ioqueue_udpsock_t *udpsock,
  1737. void *buf,
  1738. int len,
  1739. const struct sockaddr* to,
  1740. int tolen,
  1741. int timeout)
  1742. {
  1743. return tsendto(udpsock->u.sock, buf, len, to, tolen, timeout);
  1744. }
  1745. TOOLKIT_API int ioqueue_udpsock_async_recvfrom(ioqueue_udpsock_t* udpsock,
  1746. ioqueue_overlapped_t *ov,
  1747. void* buf,
  1748. int len,
  1749. ioqueue_on_recvfrom_callback on_recvfrom_callback,
  1750. void *user_data)
  1751. {
  1752. ioqueue_recvfrom_overlapped_t *overlapped;
  1753. int rc;
  1754. DWORD bytesRead;
  1755. ioqueue_t *ioq;
  1756. assert(udpsock);
  1757. assert(ov);
  1758. assert(buf);
  1759. assert(on_recvfrom_callback);
  1760. ioq = udpsock->owner;
  1761. if (ioq->stop)
  1762. return -1;
  1763. overlapped = (ioqueue_recvfrom_overlapped_t*)ov;
  1764. memset(overlapped, 0, sizeof(ioqueue_recvfrom_overlapped_t));
  1765. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_recvfrom_overlapped_t));
  1766. fastlock_enter(udpsock->ov_pending_list_lock);
  1767. list_add_tail(&overlapped->base.pending_entry, &udpsock->ov_pending_list);
  1768. fastlock_leave(udpsock->ov_pending_list_lock);
  1769. overlapped->base.type = OV_RECVFROM;
  1770. overlapped->base.user_data = user_data;
  1771. overlapped->base.handle_ctx = (ioqueue_handle_context*)udpsock;
  1772. overlapped->on_recvfrom_callback = on_recvfrom_callback;
  1773. overlapped->wsabuf.len = len;
  1774. overlapped->wsabuf.buf = buf;
  1775. overlapped->dwFlags = 0;
  1776. inc_pending_io(udpsock);
  1777. rc = WSARecvFrom(udpsock->u.sock, &overlapped->wsabuf, 1, &bytesRead, &overlapped->dwFlags,
  1778. (struct sockaddr*)&overlapped->peer, &overlapped->addrlen, &overlapped->base.ov, NULL);
  1779. if (rc == 0 || WSAGetLastError() == WSA_IO_PENDING)
  1780. return 0;
  1781. fastlock_enter(udpsock->ov_pending_list_lock);
  1782. list_del(&overlapped->base.pending_entry);
  1783. fastlock_leave(udpsock->ov_pending_list_lock);
  1784. dec_pending_io(udpsock);
  1785. return -1;
  1786. }
  1787. TOOLKIT_API int ioqueue_udpsock_recvfrom(ioqueue_udpsock_t* udpsock,
  1788. ioqueue_overlapped_t *overlapped,
  1789. void* buf,
  1790. int len,
  1791. struct sockaddr *fromaddr,
  1792. int *addrlen,
  1793. int timeout)
  1794. {
  1795. return trecvfrom(udpsock->u.sock, buf, len, fromaddr, addrlen, timeout);
  1796. }
  1797. TOOLKIT_API SOCKET ioqueue_udpsock_get_raw_socket(ioqueue_udpsock_t *udpsock)
  1798. {
  1799. assert(udpsock);
  1800. return udpsock->u.sock;
  1801. }
  1802. TOOLKIT_API ioqueue_t* ioqueue_udpsock_get_owned_ioqueue(ioqueue_udpsock_t *udpsock)
  1803. {
  1804. assert(udpsock);
  1805. return udpsock->owner;
  1806. }
  1807. TOOLKIT_API void *ioqueue_udpsock_set_user_data(ioqueue_udpsock_t *udpsock, void *user_data)
  1808. {
  1809. void *old;
  1810. assert(udpsock);
  1811. old = udpsock->user_data;
  1812. udpsock->user_data = user_data;
  1813. return old;
  1814. }
  1815. TOOLKIT_API void *ioqueue_udpsock_get_user_data(ioqueue_udpsock_t *udpsock)
  1816. {
  1817. assert(udpsock);
  1818. return udpsock->user_data;
  1819. }
  1820. TOOLKIT_API int ioqueue_udpsock_cancel(ioqueue_udpsock_t *udpsock)
  1821. {
  1822. assert(udpsock);
  1823. return CancelIo(udpsock->u.file) ? 0 : -1;
  1824. }
  1825. /* file */
  1826. TOOLKIT_API int ioqueue_file_create(ioqueue_t *ioq,
  1827. const char *path,
  1828. DWORD dwDesiredAccess,
  1829. DWORD dwShareMode,
  1830. DWORD dwCreationDisposition,
  1831. DWORD dwFlagsAndAttributes,
  1832. ioqueue_file_t *file)
  1833. {
  1834. HANDLE hFile;
  1835. assert(ioq);
  1836. assert(path);
  1837. assert(file);
  1838. if (ioq->stop)
  1839. return -1;
  1840. hFile = CreateFileA(path, dwDesiredAccess, dwShareMode,
  1841. NULL, dwCreationDisposition,
  1842. dwFlagsAndAttributes|FILE_FLAG_OVERLAPPED, NULL);
  1843. return ioqueue_file_create_from_handle(ioq, hFile, file);
  1844. }
  1845. TOOLKIT_API int ioqueue_file_create_from_handle(ioqueue_t *ioq, HANDLE h, ioqueue_file_t *file)
  1846. {
  1847. assert(ioq);
  1848. assert(file);
  1849. if (ioq->stop)
  1850. return -1;
  1851. memset(file, 0, sizeof(ioqueue_file_t));
  1852. file->u.file = h;
  1853. if (file->u.file == INVALID_HANDLE_VALUE)
  1854. return -1;
  1855. if (!CreateIoCompletionPort(file->u.file, ioq->iocp, 0, 0)) {
  1856. CloseHandle(file->u.file);
  1857. file->u.file = INVALID_HANDLE_VALUE;
  1858. return -1;
  1859. }
  1860. fastlock_init(file->ov_pending_list_lock);
  1861. INIT_LIST_HEAD(&file->ov_pending_list);
  1862. file->type = HANDLE_TYPE_FILE;
  1863. file->owner = ioq;
  1864. add_handler_list(file, ioq);
  1865. inc_ref(ioqueue_handle_context, file);
  1866. return 0;
  1867. }
  1868. TOOLKIT_API void ioqueue_file_close(ioqueue_file_t* file)
  1869. {
  1870. HANDLE s;
  1871. assert(file);
  1872. s = file->u.file;
  1873. if (s != INVALID_HANDLE_VALUE) {
  1874. file->u.file = INVALID_HANDLE_VALUE;
  1875. CloseHandle(s);
  1876. }
  1877. }
  1878. TOOLKIT_API void ioqueue_file_destroy(ioqueue_file_t* file)
  1879. {
  1880. assert(file);
  1881. dec_ref(ioqueue_handle_context, file);
  1882. }
  1883. TOOLKIT_API int ioqueue_file_async_readsome(ioqueue_file_t* file,
  1884. ioqueue_overlapped_t *ov,
  1885. void *buf,
  1886. unsigned int len,
  1887. ioqueue_on_read_callback on_read_callback,
  1888. void *user_data)
  1889. {
  1890. return ioqueue_file_async_readsome_at(file, ov, buf, len, 0, 0, on_read_callback, user_data);
  1891. }
  1892. TOOLKIT_API int ioqueue_file_async_readn(ioqueue_file_t* file,
  1893. ioqueue_overlapped_t *overlapped,
  1894. void *buf,
  1895. unsigned int len,
  1896. ioqueue_on_read_callback on_read_cb,
  1897. void *user_data)
  1898. {
  1899. return ioqueue_file_async_readn_at(file, overlapped, buf, len, 0, 0, on_read_cb, user_data);
  1900. }
  1901. TOOLKIT_API int ioqueue_file_readsome(ioqueue_file_t *file, void *buf, unsigned int len)
  1902. {
  1903. return ioqueue_file_readsome_at(file, buf, len, 0, 0);
  1904. }
  1905. TOOLKIT_API int ioqueue_file_readn(ioqueue_file_t *file, void *buf, unsigned int len)
  1906. {
  1907. return ioqueue_file_readn_at(file, buf, len, 0, 0);
  1908. }
  1909. TOOLKIT_API int ioqueue_file_async_readsome_at(ioqueue_file_t* file,
  1910. ioqueue_overlapped_t *ov,
  1911. void *buf,
  1912. unsigned int len,
  1913. DWORD posLow,
  1914. DWORD posHigh,
  1915. ioqueue_on_read_callback on_read_callback,
  1916. void *user_data)
  1917. {
  1918. ioqueue_readfilesome_overlapped_t *overlapped;
  1919. BOOL rc;
  1920. ioqueue_t *ioq;
  1921. assert(file);
  1922. assert(ov);
  1923. assert(buf);
  1924. assert(on_read_callback);
  1925. ioq = file->owner;
  1926. if (ioq->stop)
  1927. return -1;
  1928. overlapped = (ioqueue_readfilesome_overlapped_t*)ov;
  1929. memset(overlapped, 0, sizeof(ioqueue_readfilesome_overlapped_t));
  1930. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_readfilesome_overlapped_t));
  1931. fastlock_enter(file->ov_pending_list_lock);
  1932. list_add_tail(&overlapped->base.pending_entry, &file->ov_pending_list);
  1933. fastlock_leave(file->ov_pending_list_lock);
  1934. overlapped->hevt = CreateEventA(NULL, TRUE, FALSE, NULL);
  1935. overlapped->base.type = OV_READFILESOME;
  1936. overlapped->base.user_data = user_data;
  1937. overlapped->base.handle_ctx = (ioqueue_handle_context*)file;
  1938. overlapped->base.ov.Offset = posLow;
  1939. overlapped->base.ov.OffsetHigh = posHigh;
  1940. overlapped->on_read_callback = on_read_callback;
  1941. overlapped->buf = buf;
  1942. inc_pending_io(file);
  1943. rc = ReadFile(file->u.file, buf, (DWORD)len, NULL, &overlapped->base.ov);
  1944. if (rc || GetLastError() == ERROR_IO_PENDING)
  1945. return 0;
  1946. fastlock_enter(file->ov_pending_list_lock);
  1947. list_del(&overlapped->base.pending_entry);
  1948. fastlock_leave(file->ov_pending_list_lock);
  1949. dec_pending_io(file);
  1950. CloseHandle(overlapped->hevt);
  1951. return -1;
  1952. }
  1953. TOOLKIT_API int ioqueue_file_async_readn_at(ioqueue_file_t* file,
  1954. ioqueue_overlapped_t *ov,
  1955. void *buf,
  1956. unsigned int len,
  1957. DWORD posLow,
  1958. DWORD posHigh,
  1959. ioqueue_on_read_callback on_read_cb,
  1960. void *user_data)
  1961. {
  1962. ioqueue_readfilen_overlapped_t *overlapped;
  1963. BOOL rc;
  1964. ioqueue_t *ioq;
  1965. assert(file);
  1966. assert(ov);
  1967. assert(buf);
  1968. assert(on_read_cb);
  1969. ioq = file->owner;
  1970. if (ioq->stop)
  1971. return -1;
  1972. overlapped = (ioqueue_readfilen_overlapped_t*)ov;
  1973. memset(overlapped, 0, sizeof(ioqueue_readfilen_overlapped_t));
  1974. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_readfilen_overlapped_t));
  1975. fastlock_enter(file->ov_pending_list_lock);
  1976. list_add_tail(&overlapped->base.pending_entry, &file->ov_pending_list);
  1977. fastlock_leave(file->ov_pending_list_lock);
  1978. overlapped->hevt = CreateEventA(NULL, TRUE, FALSE, NULL);
  1979. overlapped->base.type = OV_READFILEN;
  1980. overlapped->base.user_data = user_data;
  1981. overlapped->base.handle_ctx = (ioqueue_handle_context*)file;
  1982. overlapped->base.ov.Offset = posLow;
  1983. overlapped->base.ov.OffsetHigh = posHigh;
  1984. overlapped->on_read_callback = on_read_cb;
  1985. overlapped->buf = buf;
  1986. overlapped->recved_bytes = 0;
  1987. overlapped->total_bytes = len;
  1988. inc_pending_io(file);
  1989. rc = ReadFile(file->u.file, buf, (DWORD)len, NULL, &overlapped->base.ov);
  1990. if (rc || GetLastError() == ERROR_IO_PENDING)
  1991. return 0;
  1992. fastlock_enter(file->ov_pending_list_lock);
  1993. list_del(&overlapped->base.pending_entry);
  1994. fastlock_leave(file->ov_pending_list_lock);
  1995. dec_pending_io(file);
  1996. return -1;
  1997. }
  1998. TOOLKIT_API int ioqueue_file_readsome_at(ioqueue_file_t *file,
  1999. void *buf,
  2000. unsigned int len,
  2001. DWORD posLow,
  2002. DWORD posHigh)
  2003. {
  2004. OVERLAPPED ov;
  2005. BOOL ret;
  2006. DWORD dwTransferBytes;
  2007. int rc = -1;
  2008. /* (MSDN)
  2009. Even if you have passed the function a file handle associated with a completion port and
  2010. a valid OVERLAPPED structure, an application can prevent completion port notification.
  2011. This is done by specifying a valid event handle for the hEvent member of the OVERLAPPED structure,
  2012. and setting its low-order bit. A valid event handle whose low-order bit is set keeps I/O completion
  2013. from being queued to the completion port.
  2014. */
  2015. memset(&ov, 0, sizeof(ov));
  2016. ov.Offset = posLow;
  2017. ov.OffsetHigh = posHigh;
  2018. ov.hEvent = CreateEventA(NULL, TRUE, FALSE, NULL);
  2019. ov.hEvent = (HANDLE)((DWORD)ov.hEvent & 0x1);
  2020. ret = ReadFile(file->u.file, buf, len, &dwTransferBytes, &ov);
  2021. if (!ret && GetLastError() == ERROR_IO_PENDING) {
  2022. ret = GetOverlappedResult(file->u.file, &ov, &dwTransferBytes, TRUE);
  2023. }
  2024. CloseHandle((HANDLE)((DWORD)ov.hEvent & ~1));
  2025. if (ret && dwTransferBytes > 0)
  2026. rc = dwTransferBytes;
  2027. return rc;
  2028. }
  2029. TOOLKIT_API int ioqueue_file_readn_at(ioqueue_file_t *file,
  2030. void *buf,
  2031. unsigned int len,
  2032. DWORD posLow,
  2033. DWORD posHigh)
  2034. {
  2035. OVERLAPPED ov;
  2036. int rc = 0;
  2037. DWORD left = len;
  2038. DWORD offset = 0;
  2039. memset(&ov, 0, sizeof(ov));
  2040. ov.Offset = posLow;
  2041. ov.OffsetHigh = posHigh;
  2042. ov.hEvent = CreateEventA(NULL, TRUE, FALSE, NULL);
  2043. ov.hEvent = (HANDLE)((DWORD)ov.hEvent & 0x1);
  2044. while (left > 0) {
  2045. BOOL ret;
  2046. DWORD dwTransferBytes;
  2047. ret = ReadFile(file->u.file, (char*)buf+offset, len, &dwTransferBytes, &ov);
  2048. if (!ret && GetLastError() == ERROR_IO_PENDING) {
  2049. ret = GetOverlappedResult(file->u.file, &ov, &dwTransferBytes, TRUE);
  2050. }
  2051. if (rc && dwTransferBytes) {
  2052. offset += dwTransferBytes;
  2053. left -= dwTransferBytes;
  2054. ov.Internal = 0;
  2055. ov.InternalHigh = 0;
  2056. ov.Offset += dwTransferBytes;
  2057. if (ov.Offset < dwTransferBytes)
  2058. ov.OffsetHigh++;
  2059. } else {
  2060. rc = -1;
  2061. break;
  2062. }
  2063. }
  2064. CloseHandle((HANDLE)((DWORD)ov.hEvent & ~1));
  2065. return rc;
  2066. }
  2067. TOOLKIT_API int ioqueue_file_async_writesome(ioqueue_file_t* file,
  2068. ioqueue_overlapped_t *ov,
  2069. void* buf,
  2070. unsigned int len,
  2071. ioqueue_on_write_callback on_write_callback,
  2072. void *user_data)
  2073. {
  2074. return ioqueue_file_async_writesome_at(file, ov, buf, len, 0, 0, on_write_callback, user_data);
  2075. }
  2076. TOOLKIT_API int ioqueue_file_async_writen(ioqueue_file_t* file,
  2077. ioqueue_overlapped_t *overlapped,
  2078. void* buf,
  2079. unsigned int len,
  2080. ioqueue_on_write_callback on_write_cb,
  2081. void *user_data)
  2082. {
  2083. return ioqueue_file_async_writen_at(file, overlapped, buf, len, 0, 0, on_write_cb, user_data);
  2084. }
  2085. TOOLKIT_API int ioqueue_file_writesome(ioqueue_file_t* file, const void *buf, unsigned int len)
  2086. {
  2087. return ioqueue_file_writesome_at(file, buf, len, 0, 0);
  2088. }
  2089. TOOLKIT_API int ioqueue_file_writen(ioqueue_file_t* file, const void *buf, unsigned int len)
  2090. {
  2091. return ioqueue_file_writen_at(file, buf, len, 0, 0);
  2092. }
  2093. TOOLKIT_API int ioqueue_file_async_writesome_at(ioqueue_file_t* file,
  2094. ioqueue_overlapped_t *ov,
  2095. void* buf,
  2096. unsigned int len,
  2097. DWORD posLow,
  2098. DWORD posHigh,
  2099. ioqueue_on_write_callback on_write_callback,
  2100. void *user_data)
  2101. {
  2102. ioqueue_writefilesome_overlapped_t *overlapped;
  2103. BOOL rc;
  2104. ioqueue_t *ioq;
  2105. assert(file);
  2106. assert(ov);
  2107. assert(buf);
  2108. assert(on_write_callback);
  2109. ioq = file->owner;
  2110. if (ioq->stop)
  2111. return -1;
  2112. overlapped = (ioqueue_writefilesome_overlapped_t*)ov;
  2113. memset(overlapped, 0, sizeof(ioqueue_writefilesome_overlapped_t));
  2114. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_writefilesome_overlapped_t));
  2115. fastlock_enter(file->ov_pending_list_lock);
  2116. list_add_tail(&overlapped->base.pending_entry, &file->ov_pending_list);
  2117. fastlock_leave(file->ov_pending_list_lock);
  2118. overlapped->hevt = CreateEventA(NULL, TRUE, FALSE, NULL);
  2119. overlapped->base.type = OV_WRITEFILESOME;
  2120. overlapped->base.user_data = user_data;
  2121. overlapped->base.handle_ctx = (ioqueue_handle_context*)file;
  2122. overlapped->base.ov.Offset = posLow;
  2123. overlapped->base.ov.OffsetHigh = posHigh;
  2124. overlapped->on_write_callback = on_write_callback;
  2125. overlapped->buf = buf;
  2126. inc_pending_io(file);
  2127. rc = WriteFile(file->u.file, buf, (DWORD)len, NULL, &overlapped->base.ov);
  2128. if (rc || GetLastError() == ERROR_IO_PENDING)
  2129. return 0;
  2130. fastlock_enter(file->ov_pending_list_lock);
  2131. list_del(&overlapped->base.pending_entry);
  2132. fastlock_leave(file->ov_pending_list_lock);
  2133. dec_pending_io(file);
  2134. CloseHandle(overlapped->hevt);
  2135. return -1;
  2136. }
  2137. TOOLKIT_API int ioqueue_file_async_writen_at(ioqueue_file_t* file,
  2138. ioqueue_overlapped_t *ov,
  2139. void* buf,
  2140. unsigned int len,
  2141. DWORD posLow,
  2142. DWORD posHigh,
  2143. ioqueue_on_write_callback on_write_cb,
  2144. void *user_data)
  2145. {
  2146. ioqueue_writefilen_overlapped_t *overlapped;
  2147. BOOL rc;
  2148. ioqueue_t *ioq;
  2149. assert(file);
  2150. assert(ov);
  2151. assert(buf);
  2152. assert(on_write_cb);
  2153. ioq = file->owner;
  2154. if (ioq->stop)
  2155. return -1;
  2156. overlapped = (ioqueue_writefilen_overlapped_t*)ov;
  2157. memset(overlapped, 0, sizeof(ioqueue_writefilen_overlapped_t));
  2158. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_writefilen_overlapped_t));
  2159. fastlock_enter(file->ov_pending_list_lock);
  2160. list_add_tail(&overlapped->base.pending_entry, &file->ov_pending_list);
  2161. fastlock_leave(file->ov_pending_list_lock);
  2162. overlapped->hevt = CreateEventA(NULL, TRUE, FALSE, NULL);
  2163. overlapped->base.type = OV_WRITEFILEN;
  2164. overlapped->base.user_data = user_data;
  2165. overlapped->base.handle_ctx = (ioqueue_handle_context*)file;
  2166. overlapped->base.ov.Offset = posLow;
  2167. overlapped->base.ov.OffsetHigh = posHigh;
  2168. overlapped->on_write_callback = on_write_cb;
  2169. overlapped->buf = buf;
  2170. overlapped->sended_bytes = 0;
  2171. overlapped->total_bytes = len;
  2172. inc_pending_io(file);
  2173. rc = WriteFile(file->u.file, buf, (DWORD)len, NULL, &overlapped->base.ov);
  2174. if (rc || GetLastError() == ERROR_IO_PENDING)
  2175. return 0;
  2176. fastlock_enter(file->ov_pending_list_lock);
  2177. list_del(&overlapped->base.pending_entry);
  2178. fastlock_leave(file->ov_pending_list_lock);
  2179. dec_pending_io(file);
  2180. CloseHandle(overlapped->hevt);
  2181. return -1;
  2182. }
  2183. TOOLKIT_API int ioqueue_file_writesome_at(ioqueue_file_t* file,
  2184. const void *buf,
  2185. unsigned int len,
  2186. DWORD posLow,
  2187. DWORD posHigh)
  2188. {
  2189. OVERLAPPED ov;
  2190. BOOL ret;
  2191. DWORD dwTransferBytes;
  2192. int rc = -1;
  2193. memset(&ov, 0, sizeof(ov));
  2194. ov.Offset = posLow;
  2195. ov.OffsetHigh = posHigh;
  2196. ov.hEvent = CreateEventA(NULL, TRUE, FALSE, NULL);
  2197. ov.hEvent = (HANDLE)((DWORD)ov.hEvent & 0x1);
  2198. ret = WriteFile(file->u.file, buf, len, &dwTransferBytes, &ov);
  2199. if (!ret && GetLastError() == ERROR_IO_PENDING) {
  2200. ret = GetOverlappedResult(file->u.file, &ov, &dwTransferBytes, TRUE);
  2201. }
  2202. CloseHandle((HANDLE)((DWORD)ov.hEvent & ~1));
  2203. if (ret && dwTransferBytes > 0)
  2204. rc = dwTransferBytes;
  2205. return rc;
  2206. }
  2207. TOOLKIT_API int ioqueue_file_writen_at(ioqueue_file_t* file,
  2208. const void *buf,
  2209. unsigned int len,
  2210. DWORD posLow,
  2211. DWORD posHigh)
  2212. {
  2213. OVERLAPPED ov;
  2214. int rc = 0;
  2215. DWORD offset = 0;
  2216. DWORD left = len;
  2217. memset(&ov, 0, sizeof(ov));
  2218. ov.Offset = posLow;
  2219. ov.OffsetHigh = posHigh;
  2220. ov.hEvent = CreateEventA(NULL, TRUE, FALSE, NULL);
  2221. ov.hEvent = (HANDLE)((DWORD)ov.hEvent & 0x1);
  2222. while (left > 0) {
  2223. BOOL ret;
  2224. DWORD dwTransferBytes;
  2225. ret = WriteFile(file->u.file, (char*)buf+offset, left, &dwTransferBytes, &ov);
  2226. if (!ret && GetLastError() == ERROR_IO_PENDING) {
  2227. ret = GetOverlappedResult(file->u.file, &ov, &dwTransferBytes, TRUE);
  2228. }
  2229. if (ret && dwTransferBytes > 0) {
  2230. offset += dwTransferBytes;
  2231. left -= dwTransferBytes;
  2232. ov.Internal = 0;
  2233. ov.InternalHigh = 0;
  2234. ov.Offset += dwTransferBytes;
  2235. if (ov.Offset < dwTransferBytes)
  2236. ov.OffsetHigh ++;
  2237. } else {
  2238. rc = -1;
  2239. break;
  2240. }
  2241. }
  2242. CloseHandle((HANDLE)((DWORD)ov.hEvent & ~1));
  2243. return rc;
  2244. }
  2245. TOOLKIT_API ioqueue_t* ioqueue_file_get_owned_ioqueue(ioqueue_file_t* file)
  2246. {
  2247. assert(file);
  2248. return file->owner;
  2249. }
  2250. TOOLKIT_API HANDLE ioqueue_file_get_raw_handle(ioqueue_file_t* file)
  2251. {
  2252. assert(file);
  2253. return file->u.file;
  2254. }
  2255. TOOLKIT_API void *ioqueue_file_set_user_data(ioqueue_file_t* file, void* user_data)
  2256. {
  2257. void *old;
  2258. assert(file);
  2259. old = file->user_data;
  2260. file->user_data = user_data;
  2261. return old;
  2262. }
  2263. TOOLKIT_API void *ioqueue_file_get_user_data(ioqueue_file_t* file)
  2264. {
  2265. assert(file);
  2266. return file->user_data;
  2267. }
  2268. TOOLKIT_API int ioqueue_file_cancel(ioqueue_file_t* file)
  2269. {
  2270. assert(file);
  2271. return CancelIo(file->u.file) ? 0 : -1;
  2272. }
  2273. /* pipe acceptor */
  2274. TOOLKIT_API int ioqueue_pipe_acceptor_create(ioqueue_t *ioq,
  2275. const char *name,
  2276. ioqueue_pipe_acceptor_t *acceptor)
  2277. {
  2278. assert(ioq);
  2279. assert(name);
  2280. assert(acceptor);
  2281. memset(acceptor, 0, sizeof(ioqueue_pipe_acceptor_t));
  2282. acceptor->u.pipe_name = strdup_printf("\\\\.\\pipe\\%s", name);
  2283. acceptor->type = HANDLE_TYPE_PIPEACCEPTOR;
  2284. acceptor->owner = ioq;
  2285. fastlock_init(acceptor->ov_pending_list_lock);
  2286. INIT_LIST_HEAD(&acceptor->ov_pending_list);
  2287. add_handler_list(acceptor, ioq);
  2288. inc_ref(ioqueue_handle_context, acceptor);
  2289. return 0;
  2290. }
  2291. TOOLKIT_API void ioqueue_pipe_acceptor_destroy(ioqueue_pipe_acceptor_t *acceptor)
  2292. {
  2293. assert(acceptor);
  2294. dec_ref(ioqueue_handle_context, acceptor);
  2295. }
  2296. TOOLKIT_API ioqueue_t* ioqueue_pipe_acceptor_get_owned_ioqueue(ioqueue_pipe_acceptor_t *acceptor)
  2297. {
  2298. assert(acceptor);
  2299. assert(acceptor->type == HANDLE_TYPE_PIPEACCEPTOR);
  2300. return acceptor->owner;
  2301. }
  2302. TOOLKIT_API void *ioqueue_pipe_acceptor_set_user_data(ioqueue_pipe_acceptor_t *acceptor, void *user_data)
  2303. {
  2304. void *old;
  2305. assert(acceptor);
  2306. assert(acceptor->type == HANDLE_TYPE_PIPEACCEPTOR);
  2307. old = acceptor->user_data;
  2308. acceptor->user_data = user_data;
  2309. return old;
  2310. }
  2311. TOOLKIT_API void *ioqueue_pipe_acceptor_get_user_data(ioqueue_pipe_acceptor_t *acceptor)
  2312. {
  2313. assert(acceptor);
  2314. assert(acceptor->type == HANDLE_TYPE_ACCEPTOR);
  2315. return acceptor->user_data;
  2316. }
  2317. TOOLKIT_API int ioqueue_pipe_acceptor_async_accept(ioqueue_pipe_acceptor_t *acceptor,
  2318. ioqueue_overlapped_t *ov,
  2319. ioqueue_on_pipe_accept_callback on_accept_callback,
  2320. void *user_data)
  2321. {
  2322. ioqueue_t *ioq;
  2323. ioqueue_connectpipe_overlapped_t *overlapped;
  2324. BOOL ret;
  2325. assert(acceptor);
  2326. assert(ov);
  2327. assert(acceptor->type == HANDLE_TYPE_PIPEACCEPTOR);
  2328. assert(on_accept_callback);
  2329. ioq = acceptor->owner;
  2330. if (ioq->stop)
  2331. return -1;
  2332. overlapped = (ioqueue_connectpipe_overlapped_t*)ov;
  2333. memset(overlapped, 0, sizeof(ioqueue_connectpipe_overlapped_t));
  2334. ioqueue_overlapped_set_mask(ov, sizeof(ioqueue_connectpipe_overlapped_t));
  2335. overlapped->client = CreateNamedPipeA(acceptor->u.pipe_name,
  2336. PIPE_ACCESS_DUPLEX|FILE_FLAG_OVERLAPPED, PIPE_TYPE_BYTE,
  2337. PIPE_UNLIMITED_INSTANCES, 3072, 3072, NMPWAIT_WAIT_FOREVER, NULL);
  2338. if (overlapped->client == INVALID_HANDLE_VALUE)
  2339. return -1;
  2340. if (!CreateIoCompletionPort(overlapped->client, ioq->iocp, 0, 0)) {
  2341. CloseHandle(overlapped->client);
  2342. return -1;
  2343. }
  2344. overlapped->hevt = CreateEventA(NULL, TRUE, FALSE, NULL); // must be use event, from MSDN
  2345. overlapped->base.type = OV_CONNECTPIPE;
  2346. overlapped->base.user_data = user_data;
  2347. overlapped->base.handle_ctx = acceptor;
  2348. overlapped->base.ov.hEvent = overlapped->hevt;
  2349. fastlock_enter(acceptor->ov_pending_list_lock);
  2350. list_add_tail(&overlapped->base.pending_entry, &acceptor->ov_pending_list);
  2351. fastlock_leave(acceptor->ov_pending_list_lock);
  2352. inc_pending_io(acceptor);
  2353. overlapped->on_accept_callback = on_accept_callback;
  2354. ret = ConnectNamedPipe(overlapped->client, &overlapped->base.ov);
  2355. if (ret || GetLastError() == ERROR_IO_PENDING)
  2356. return 0;
  2357. fastlock_enter(acceptor->ov_pending_list_lock);
  2358. list_del(&overlapped->base.pending_entry);
  2359. fastlock_leave(acceptor->ov_pending_list_lock);
  2360. dec_pending_io(acceptor);
  2361. CloseHandle(overlapped->client);
  2362. CloseHandle(overlapped->hevt);
  2363. return -1;
  2364. }
  2365. TOOLKIT_API int ioqueue_pipe_acceptor_accept(ioqueue_pipe_acceptor_t *acceptor, HANDLE *p_pipe, int timeout)
  2366. {
  2367. ioqueue_t *ioq;
  2368. HANDLE pipe;
  2369. OVERLAPPED ov;
  2370. BOOL ret;
  2371. assert(acceptor);
  2372. assert(p_pipe);
  2373. assert(acceptor->type == HANDLE_TYPE_PIPEACCEPTOR);
  2374. ioq = acceptor->owner;
  2375. if (ioq->stop)
  2376. return -1;
  2377. pipe = CreateNamedPipeA(acceptor->u.pipe_name,
  2378. PIPE_ACCESS_DUPLEX|FILE_FLAG_OVERLAPPED, PIPE_TYPE_BYTE,
  2379. PIPE_UNLIMITED_INSTANCES, 3072, 3072, (DWORD)timeout, NULL);
  2380. if (pipe == INVALID_HANDLE_VALUE)
  2381. return -1;
  2382. memset(&ov, 0, sizeof(ov));
  2383. ov.hEvent = CreateEventA(NULL, TRUE, FALSE, NULL);
  2384. ret = ConnectNamedPipe(pipe, &ov);
  2385. CloseHandle(ov.hEvent);
  2386. if (ret && CreateIoCompletionPort(pipe, ioq->iocp, 0, 0)) {
  2387. *p_pipe = pipe;
  2388. return 0;
  2389. } else {
  2390. CloseHandle(pipe);
  2391. }
  2392. return -1;
  2393. }
  2394. TOOLKIT_API int ioqueue_pipe_acceptor_create_client(ioqueue_pipe_acceptor_t *acceptor,
  2395. HANDLE h,
  2396. ioqueue_file_t *pipe)
  2397. {
  2398. ioqueue_t *ioq;
  2399. assert(acceptor);
  2400. assert(pipe);
  2401. assert(h != INVALID_HANDLE_VALUE);
  2402. ioq = acceptor->owner;
  2403. if (ioq->stop)
  2404. return -1;
  2405. memset(pipe, 0, sizeof(ioqueue_tcpsock_t));
  2406. pipe->type = HANDLE_TYPE_FILE;
  2407. pipe->u.file = h;
  2408. pipe->owner = ioq;
  2409. INIT_LIST_HEAD(&pipe->ov_pending_list);
  2410. add_handler_list(pipe, ioq);
  2411. inc_ref(ioqueue_handle_context, pipe);
  2412. return 0;
  2413. }
  2414. TOOLKIT_API int ioqueue_pipe_acceptor_cancel(ioqueue_pipe_acceptor_t *acceptor)
  2415. {
  2416. //.....
  2417. assert(0);
  2418. return 0;
  2419. }
  2420. TOOLKIT_API int ioqueue_pipe_acceptor_close_pending_handle(ioqueue_pipe_acceptor_t *acceptor)
  2421. {
  2422. assert(acceptor);
  2423. fastlock_enter(acceptor->ov_pending_list_lock);
  2424. {
  2425. ioqueue_base_overlapped_t *pos;
  2426. list_for_each_entry(pos, &acceptor->ov_pending_list, ioqueue_base_overlapped_t, pending_entry) {
  2427. ioqueue_connectpipe_overlapped_t *overlapped = (ioqueue_connectpipe_overlapped_t *)pos;
  2428. if (overlapped->client != INVALID_HANDLE_VALUE) {
  2429. CloseHandle(overlapped->client);
  2430. overlapped->client = INVALID_HANDLE_VALUE;
  2431. }
  2432. }
  2433. }
  2434. fastlock_leave(acceptor->ov_pending_list_lock);
  2435. return 0;
  2436. }
  2437. #define IO_GET_TYPE(x) ((x) & 0x0000ff00)
  2438. #define IO_COMBINE_TYPE(x, y) ((((x) << 8) | (y)) & 0x0000ffff)
  2439. TOOLKIT_API int ioqueue_overlapped_get_mask(const ioqueue_overlapped_t* const io)
  2440. {
  2441. assert(io);
  2442. ioqueue_base_overlapped_t* base_ov = (ioqueue_base_overlapped_t*)io;
  2443. return (int)base_ov->ov.Internal;
  2444. }
  2445. TOOLKIT_API void ioqueue_overlapped_set_mask(ioqueue_overlapped_t* io, int mask_value)
  2446. {
  2447. assert(io);
  2448. ioqueue_base_overlapped_t* base_ov = (ioqueue_base_overlapped_t*)io;
  2449. base_ov->ov.Internal = mask_value;
  2450. }
  2451. /*at first, this function is only used evtpoll for dispatch, after then, bus_endpt seems involved*/
  2452. TOOLKIT_API uint32_t ioqueue_overlapped_get_type(const ioqueue_overlapped_t* const io)
  2453. {
  2454. if (ioqueue_overlapped_get_mask(io) == sizeof(OVERLAPPED)) {
  2455. return EV_BUS_ENDPOINT;
  2456. }
  2457. /*idx of acceptor*/
  2458. int sub_type = 0;
  2459. const ioqueue_base_overlapped_t* base_ov = (ioqueue_base_overlapped_t*)io;
  2460. const ioqueue_handle_context* handle_ctx = base_ov->handle_ctx;
  2461. const int type = handle_ctx->type;
  2462. switch (type) {
  2463. case HANDLE_TYPE_ACCEPTOR:
  2464. {
  2465. ioqueue_accept_overlapped_t* overlapped = (ioqueue_accept_overlapped_t*)io;
  2466. sub_type = (int)overlapped->base.user_data;
  2467. }
  2468. break;
  2469. case HANDLE_TYPE_PIPEACCEPTOR:
  2470. {
  2471. ioqueue_connectpipe_overlapped_t* overlapped = (ioqueue_connectpipe_overlapped_t*)io;
  2472. sub_type = (int)overlapped->base.user_data;
  2473. }
  2474. break;
  2475. case HANDLE_TYPE_TCPSOCK:
  2476. case HANDLE_TYPE_UDPSOCK:
  2477. case HANDLE_TYPE_FILE:
  2478. sub_type = base_ov->type;
  2479. break;
  2480. default:
  2481. break;
  2482. }
  2483. return IO_COMBINE_TYPE(type, sub_type);
  2484. }