fxt-tool.c 19 KB

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  1. /*
  2. * StarPU
  3. * Copyright (C) INRIA 2008-2009 (see AUTHORS file)
  4. *
  5. * This program is free software; you can redistribute it and/or modify
  6. * it under the terms of the GNU Lesser General Public License as published by
  7. * the Free Software Foundation; either version 2.1 of the License, or (at
  8. * your option) any later version.
  9. *
  10. * This program is distributed in the hope that it will be useful, but
  11. * WITHOUT ANY WARRANTY; without even the implied warranty of
  12. * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE.
  13. *
  14. * See the GNU Lesser General Public License in COPYING.LGPL for more details.
  15. */
  16. #include "fxt-tool.h"
  17. event_list_t events[MAXWORKERS];
  18. workq_list_t taskq;
  19. char *worker_name[MAXWORKERS];
  20. static char *cpus_worker_colors[MAXWORKERS] = {"/greens9/7", "/greens9/6", "/greens9/5", "/greens9/4", "/greens9/9", "/greens9/3", "/greens9/2", "/greens9/1" };
  21. static char *cuda_worker_colors[MAXWORKERS] = {"/ylorrd9/9", "/ylorrd9/6", "/ylorrd9/3", "/ylorrd9/1", "/ylorrd9/8", "/ylorrd9/7", "/ylorrd9/4", "/ylorrd9/2", "/ylorrd9/1"};
  22. static char *other_worker_colors[MAXWORKERS] = {"/greys9/9", "/greys9/8", "/greys9/7", "/greys9/6"};
  23. static char *worker_colors[MAXWORKERS];
  24. static fxt_t fut;
  25. struct fxt_ev_64 ev;
  26. unsigned first_event = 1;
  27. uint64_t start_time = 0;
  28. uint64_t end_time = 0;
  29. unsigned nworkers = 0;
  30. char *filename = NULL;
  31. unsigned per_task_colour = 0;
  32. LIST_TYPE(symbol_name,
  33. char *name;
  34. );
  35. symbol_name_list_t symbol_list;
  36. /*
  37. * Paje trace file tools
  38. */
  39. static char *out_paje_path = "paje.trace";
  40. static FILE *out_paje_file;
  41. void paje_output_file_init(void)
  42. {
  43. /* create a new file */
  44. out_paje_file = fopen(out_paje_path, "w+");
  45. write_paje_header(out_paje_file);
  46. fprintf(out_paje_file, " \n \
  47. 1 P 0 \"Program\" \n \
  48. 1 Mn P \"Memory Node\" \n \
  49. 1 T Mn \"Worker\" \n \
  50. 1 Sc P \"Scheduler State\" \n \
  51. 2 event T \"event type\" \n \
  52. 3 S T \"Thread State\" \n \
  53. 3 MS Mn \"Memory Node State\" \n \
  54. 4 ntask Sc \"Number of tasks\" \n \
  55. 6 I S Initializing \"0.0 .7 1.0\" \n \
  56. 6 D S Deinitializing \"0.0 .1 .7\" \n \
  57. 6 Fi S FetchingInput \"1.0 .1 1.0\" \n \
  58. 6 Po S PushingOutput \"0.1 1.0 1.0\" \n \
  59. 6 E S Executing \".0 .6 .4\" \n \
  60. 6 C S Callback \".0 .3 .8\" \n \
  61. 6 B S Blocked \".9 .1 .0\" \n \
  62. 6 P S Progressing \".4 .1 .6\" \n \
  63. 6 A MS Allocating \".4 .1 .0\" \n \
  64. 6 Ar MS AllocatingReuse \".1 .1 .8\" \n \
  65. 6 R MS Reclaiming \".0 .1 .4\" \n \
  66. 6 Co MS DriverCopy \".3 .5 .1\" \n \
  67. 6 No MS Nothing \".0 .0 .0\" \n \
  68. 5 L P Mn Mn L\n");
  69. }
  70. void paje_output_file_terminate(void)
  71. {
  72. /* close the file */
  73. fclose(out_paje_file);
  74. }
  75. /*
  76. * Generic tools
  77. */
  78. void handle_new_mem_node(void)
  79. {
  80. char *memnodestr = malloc(16*sizeof(char));
  81. sprintf(memnodestr, "%ld", ev.param[0]);
  82. fprintf(out_paje_file, "7 %f %s Mn p MEMNODE%s\n", (float)((ev.time-start_time)/1000000.0), memnodestr, memnodestr);
  83. }
  84. static unsigned cuda_index = 0;
  85. static unsigned cpus_index = 0;
  86. static unsigned other_index = 0;
  87. void handle_worker_init_start(void)
  88. {
  89. /*
  90. arg0 : type of worker (cuda, core ..)
  91. arg1 : memory node
  92. arg2 : thread id
  93. */
  94. char *str = malloc(20*sizeof(char));
  95. char *color = NULL;
  96. strcpy(str, "unknown");
  97. switch (ev.param[0]) {
  98. case FUT_APPS_KEY:
  99. str = "apps";
  100. color = other_worker_colors[other_index++];
  101. break;
  102. case FUT_CORE_KEY:
  103. str = "core";
  104. color = cpus_worker_colors[cpus_index++];
  105. break;
  106. case FUT_CUDA_KEY:
  107. str = "cuda";
  108. color = cuda_worker_colors[cuda_index++];
  109. break;
  110. }
  111. // fprintf(stderr, "new %s worker (tid = %d)\n", str, ev.param[1]);
  112. char *memnodestr = malloc(16*sizeof(char));
  113. sprintf(memnodestr, "%ld", ev.param[1]);
  114. char *tidstr = malloc(16*sizeof(char));
  115. sprintf(tidstr, "%ld", ev.param[2]);
  116. fprintf(out_paje_file, "7 %f %s T MEMNODE%s %s \n", (float)((ev.time-start_time)/1000000.0), tidstr, memnodestr, tidstr);
  117. /* create a new key in the htable */
  118. uint64_t workerid = nworkers++;
  119. ENTRY item;
  120. item.key = tidstr;
  121. item.data = (void *)workerid;
  122. worker_colors[workerid] = color;
  123. ENTRY *res;
  124. res = hsearch(item, FIND);
  125. worker_name[workerid] = str;
  126. /* only register a thread once */
  127. STARPU_ASSERT(res == NULL);
  128. res = hsearch(item, ENTER);
  129. STARPU_ASSERT(res);
  130. events[workerid] = event_list_new();
  131. /* start initialization */
  132. fprintf(out_paje_file, "10 %f S %ld I\n", (float)((ev.time-start_time)/1000000.0), ev.param[2]);
  133. }
  134. void handle_worker_init_end(void)
  135. {
  136. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[0]);
  137. }
  138. void handle_worker_deinit_start(void)
  139. {
  140. fprintf(out_paje_file, "10 %f S %ld D\n", (float)((ev.time-start_time)/1000000.0), ev.param[0]);
  141. }
  142. void handle_worker_deinit_end(void)
  143. {
  144. fprintf(out_paje_file, "8 %f %ld T\n", (float)((ev.time-start_time)/1000000.0), ev.param[1]);
  145. }
  146. int find_workder_id(unsigned long tid)
  147. {
  148. char tidstr[16];
  149. sprintf(tidstr, "%ld", tid);
  150. ENTRY item;
  151. item.key = tidstr;
  152. item.data = NULL;
  153. ENTRY *res;
  154. res = hsearch(item, FIND);
  155. //STARPU_ASSERT(res);
  156. if (!res)
  157. return -1;
  158. int id = (uintptr_t)(res->data);
  159. return id;
  160. }
  161. static void create_paje_state_if_not_found(char *name)
  162. {
  163. symbol_name_itor_t itor;
  164. for (itor = symbol_name_list_begin(symbol_list);
  165. itor != symbol_name_list_end(symbol_list);
  166. itor = symbol_name_list_next(itor))
  167. {
  168. if (!strcmp(name, itor->name))
  169. {
  170. /* we found an entry */
  171. return;
  172. }
  173. }
  174. /* it's the first time ... */
  175. symbol_name_t entry = symbol_name_new();
  176. entry->name = malloc(strlen(name));
  177. strcpy(entry->name, name);
  178. symbol_name_list_push_front(symbol_list, entry);
  179. /* choose some colour ... that's disguting yes */
  180. uint32_t hash_symbol = crc32_string(name, 0);
  181. unsigned hash_symbol_red = (unsigned)crc32_string("red", hash_symbol) % 1024;
  182. unsigned hash_symbol_green = (unsigned)crc32_string("green", hash_symbol) % 1024;
  183. unsigned hash_symbol_blue = (unsigned)crc32_string("blue", hash_symbol) % 1024;
  184. fprintf(stderr, "name %s hash red %d green %d blue %d \n", name, hash_symbol_red, hash_symbol_green, hash_symbol_blue);
  185. uint32_t hash_sum = hash_symbol_red + hash_symbol_green + hash_symbol_blue;
  186. float red = (1.0f * hash_symbol_red) / hash_sum;
  187. float green = (1.0f * hash_symbol_green) / hash_sum;
  188. float blue = (1.0f * hash_symbol_blue) / hash_sum;
  189. /* create the Paje state */
  190. fprintf(out_paje_file, "6 %s S %s \"%f %f %f\" \n", name, red, green, blue, name);
  191. }
  192. void handle_start_codelet_body(void)
  193. {
  194. int worker;
  195. worker = find_workder_id(ev.param[1]);
  196. if (worker < 0) return;
  197. if (per_task_colour)
  198. {
  199. unsigned long has_name = ev.param[2];
  200. char *name = has_name?(char *)&ev.param[3]:"unknown";
  201. create_paje_state_if_not_found(name);
  202. fprintf(out_paje_file, "101 %f S %ld E %s\n", (float)((ev.time-start_time)/1000000.0), ev.param[1], name);
  203. }
  204. else {
  205. fprintf(out_paje_file, "10 %f S %ld E\n", (float)((ev.time-start_time)/1000000.0), ev.param[1]);
  206. }
  207. event_t e = event_new();
  208. e->time = ev.time;
  209. e->mode = WORKING;
  210. event_list_push_back(events[worker], e);
  211. end_time = STARPU_MAX(end_time, ev.time);
  212. }
  213. void handle_end_codelet_body(void)
  214. {
  215. //fprintf(stderr, "end codelet %p on tid %d\n", (void *)ev.param[0], ev.param[1]);
  216. int worker;
  217. worker = find_workder_id(ev.param[1]);
  218. if (worker < 0) return;
  219. // printf("<- worker %d\n", worker);
  220. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  221. event_t e = event_new();
  222. e->time = ev.time;
  223. e->mode = IDLE;
  224. event_list_push_back(events[worker], e);
  225. end_time = STARPU_MAX(end_time, ev.time);
  226. }
  227. void handle_user_event(void)
  228. {
  229. int worker;
  230. worker = find_workder_id(ev.param[1]);
  231. if (worker < 0) return;
  232. unsigned code;
  233. code = ev.param[2];
  234. fprintf(out_paje_file, "9 %f event %ld %d\n", (float)((ev.time-start_time)/1000000.0), ev.param[1], code);
  235. }
  236. void handle_start_callback(void)
  237. {
  238. int worker;
  239. worker = find_workder_id(ev.param[1]);
  240. if (worker < 0) return;
  241. fprintf(out_paje_file, "10 %f S %ld C\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  242. }
  243. void handle_end_callback(void)
  244. {
  245. int worker;
  246. worker = find_workder_id(ev.param[1]);
  247. if (worker < 0) return;
  248. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  249. }
  250. void handle_start_fetch_input(void)
  251. {
  252. int worker;
  253. worker = find_workder_id(ev.param[1]);
  254. if (worker < 0) return;
  255. fprintf(out_paje_file, "10 %f S %ld Fi\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  256. event_t e = event_new();
  257. e->time = ev.time;
  258. e->mode = FETCHING;
  259. event_list_push_back(events[worker], e);
  260. end_time = STARPU_MAX(end_time, ev.time);
  261. }
  262. void handle_end_fetch_input(void)
  263. {
  264. int worker;
  265. worker = find_workder_id(ev.param[1]);
  266. if (worker < 0) return;
  267. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  268. event_t e = event_new();
  269. e->time = ev.time;
  270. e->mode = IDLE;
  271. event_list_push_back(events[worker], e);
  272. end_time = STARPU_MAX(end_time, ev.time);
  273. }
  274. void handle_start_push_output(void)
  275. {
  276. int worker;
  277. worker = find_workder_id(ev.param[1]);
  278. if (worker < 0) return;
  279. fprintf(out_paje_file, "10 %f S %ld Po\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  280. event_t e = event_new();
  281. e->time = ev.time;
  282. e->mode = PUSHING;
  283. event_list_push_back(events[worker], e);
  284. end_time = STARPU_MAX(end_time, ev.time);
  285. }
  286. void handle_end_push_output(void)
  287. {
  288. int worker;
  289. worker = find_workder_id(ev.param[1]);
  290. if (worker < 0) return;
  291. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  292. event_t e = event_new();
  293. e->time = ev.time;
  294. e->mode = IDLE;
  295. event_list_push_back(events[worker], e);
  296. end_time = STARPU_MAX(end_time, ev.time);
  297. }
  298. void handle_start_progress(void)
  299. {
  300. int worker;
  301. worker = find_workder_id(ev.param[1]);
  302. if (worker < 0) return;
  303. fprintf(out_paje_file, "10 %f S %ld P\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  304. event_t e = event_new();
  305. e->time = ev.time;
  306. e->mode = PUSHING;
  307. event_list_push_back(events[worker], e);
  308. end_time = STARPU_MAX(end_time, ev.time);
  309. }
  310. void handle_end_progress(void)
  311. {
  312. int worker;
  313. worker = find_workder_id(ev.param[1]);
  314. if (worker < 0) return;
  315. fprintf(out_paje_file, "10 %f S %ld B\n", (float)((ev.time-start_time)/1000000.0), ev.param[1] );
  316. event_t e = event_new();
  317. e->time = ev.time;
  318. e->mode = IDLE;
  319. event_list_push_back(events[worker], e);
  320. end_time = STARPU_MAX(end_time, ev.time);
  321. }
  322. void handle_data_copy(void)
  323. {
  324. }
  325. void handle_start_driver_copy(void)
  326. {
  327. unsigned src = ev.param[0];
  328. unsigned dst = ev.param[1];
  329. unsigned size = ev.param[2];
  330. unsigned comid = ev.param[3];
  331. fprintf(out_paje_file, "10 %f MS MEMNODE%d Co\n", (float)((ev.time-start_time)/1000000.0), dst);
  332. fprintf(out_paje_file, "18 %f L p %d MEMNODE%d com_%d\n", (float)((ev.time-start_time)/1000000.0), size, src, comid);
  333. }
  334. void handle_end_driver_copy(void)
  335. {
  336. unsigned dst = ev.param[1];
  337. unsigned size = ev.param[2];
  338. unsigned comid = ev.param[3];
  339. fprintf(out_paje_file, "10 %f MS MEMNODE%d No\n", (float)((ev.time-start_time)/1000000.0), dst);
  340. fprintf(out_paje_file, "19 %f L p %d MEMNODE%d com_%d\n", (float)((ev.time-start_time)/1000000.0), size, dst, comid);
  341. }
  342. void handle_start_alloc(void)
  343. {
  344. unsigned memnode = ev.param[0];
  345. fprintf(out_paje_file, "10 %f MS MEMNODE%d A\n", (float)((ev.time-start_time)/1000000.0), memnode);
  346. }
  347. void handle_end_alloc(void)
  348. {
  349. unsigned memnode = ev.param[0];
  350. fprintf(out_paje_file, "10 %f MS MEMNODE%d No\n", (float)((ev.time-start_time)/1000000.0), memnode);
  351. }
  352. void handle_start_alloc_reuse(void)
  353. {
  354. unsigned memnode = ev.param[0];
  355. fprintf(out_paje_file, "10 %f MS MEMNODE%d Ar\n", (float)((ev.time-start_time)/1000000.0), memnode);
  356. }
  357. void handle_end_alloc_reuse(void)
  358. {
  359. unsigned memnode = ev.param[0];
  360. fprintf(out_paje_file, "10 %f MS MEMNODE%d No\n", (float)((ev.time-start_time)/1000000.0), memnode);
  361. }
  362. void handle_start_memreclaim(void)
  363. {
  364. unsigned memnode = ev.param[0];
  365. fprintf(out_paje_file, "10 %f MS MEMNODE%d R\n", (float)((ev.time-start_time)/1000000.0), memnode);
  366. }
  367. void handle_end_memreclaim(void)
  368. {
  369. unsigned memnode = ev.param[0];
  370. fprintf(out_paje_file, "10 %f MS MEMNODE%d No\n", (float)((ev.time-start_time)/1000000.0), memnode);
  371. }
  372. int maxq_size = 0;
  373. int curq_size = 0;
  374. void handle_job_push(void)
  375. {
  376. curq_size++;
  377. maxq_size = STARPU_MAX(maxq_size, curq_size);
  378. workq_t e = workq_new();
  379. e->time = ev.time;
  380. e->diff = +1;
  381. e->current_size = curq_size;
  382. fprintf(out_paje_file, "13 %f ntask sched %f\n", (float)((ev.time-start_time)/1000000.0), (float)curq_size);
  383. workq_list_push_back(taskq, e);
  384. }
  385. void handle_job_pop(void)
  386. {
  387. curq_size--;
  388. workq_t e = workq_new();
  389. e->time = ev.time;
  390. e->diff = -1;
  391. e->current_size = curq_size;
  392. fprintf(out_paje_file, "13 %f ntask sched %f\n", (float)((ev.time-start_time)/1000000.0), (float)curq_size);
  393. workq_list_push_back(taskq, e);
  394. }
  395. void handle_codelet_tag_deps(void)
  396. {
  397. uint64_t child;
  398. uint64_t father;
  399. child = ev.param[0];
  400. father = ev.param[1];
  401. add_deps(child, father);
  402. }
  403. void handle_task_done(void)
  404. {
  405. uint64_t tag_id;
  406. tag_id = ev.param[0];
  407. int worker;
  408. worker = find_workder_id(ev.param[1]);
  409. dot_set_tag_done(tag_id, worker_colors[worker]);
  410. }
  411. void generate_svg_output(void)
  412. {
  413. svg_engine_generate_output(events, taskq, worker_name, nworkers, maxq_size, start_time, end_time, "toto.svg");
  414. }
  415. void generate_gnuplot_output(void)
  416. {
  417. FILE *output;
  418. output = fopen("data", "w+");
  419. STARPU_ASSERT(output);
  420. unsigned linesize;
  421. unsigned maxline = 0;
  422. unsigned worker;
  423. for (worker = 0; worker < nworkers; worker++)
  424. {
  425. linesize = 0;
  426. event_itor_t i;
  427. for (i = event_list_begin(events[worker]);
  428. i != event_list_end(events[worker]);
  429. i = event_list_next(i))
  430. {
  431. linesize++;
  432. }
  433. maxline = STARPU_MAX(maxline, linesize);
  434. }
  435. for (worker = 0; worker < nworkers; worker++)
  436. {
  437. unsigned long prev = start_time;
  438. fprintf(output, "%d\t", 0);
  439. event_itor_t i;
  440. for (i = event_list_begin(events[worker]);
  441. i != event_list_end(events[worker]);
  442. i = event_list_next(i))
  443. {
  444. fprintf(output, "%lu\t", (i->time - prev)/FACTOR);
  445. prev = i->time;
  446. }
  447. fprintf(output, "\n");
  448. }
  449. fclose(output);
  450. }
  451. static void parse_args(int argc, char **argv)
  452. {
  453. int i;
  454. for (i = 1; i < argc; i++) {
  455. if (strcmp(argv[i], "-c") == 0) {
  456. per_task_colour = 1;
  457. }
  458. if (strcmp(argv[i], "-o") == 0) {
  459. out_paje_path = argv[++i];
  460. }
  461. if (strcmp(argv[i], "-i") == 0) {
  462. filename = argv[++i];
  463. }
  464. if (strcmp(argv[i], "-h") == 0) {
  465. fprintf(stderr, "Usage : %s [-c] [-i input_filename] [-o output_filename]\n", argv[0]);
  466. fprintf(stderr, "\t-c: use a different colour for every type of task.\n");
  467. exit(-1);
  468. }
  469. }
  470. }
  471. /*
  472. * This program should be used to parse the log generated by FxT
  473. */
  474. int main(int argc, char **argv)
  475. {
  476. int ret;
  477. int fd_in, fd_out;
  478. int use_stdout = 1;
  479. init_dag_dot();
  480. parse_args(argc, argv);
  481. fd_in = open(filename, O_RDONLY);
  482. if (fd_in < 0) {
  483. perror("open failed :");
  484. exit(-1);
  485. }
  486. fut = fxt_fdopen(fd_in);
  487. if (!fut) {
  488. perror("fxt_fdopen :");
  489. exit(-1);
  490. }
  491. fxt_blockev_t block;
  492. block = fxt_blockev_enter(fut);
  493. /* create a htable to identify each worker(tid) */
  494. hcreate(MAXWORKERS);
  495. symbol_list = symbol_name_list_new();
  496. paje_output_file_init();
  497. taskq = workq_list_new();
  498. while(1) {
  499. ret = fxt_next_ev(block, FXT_EV_TYPE_64, (struct fxt_ev *)&ev);
  500. if (ret != FXT_EV_OK) {
  501. fprintf(stderr, "no more block ...\n");
  502. break;
  503. }
  504. __attribute__ ((unused)) int nbparam = ev.nb_params;
  505. if (first_event)
  506. {
  507. first_event = 0;
  508. start_time = ev.time;
  509. /* create the "program" container */
  510. fprintf(out_paje_file, "7 %f p P 0 program \n", (float)(start_time-start_time));
  511. /* create a variable with the number of tasks */
  512. fprintf(out_paje_file, "7 %f sched Sc p scheduler \n", (float)(start_time-start_time));
  513. fprintf(out_paje_file, "13 %f ntask sched 0.0\n", (float)(start_time-start_time));
  514. }
  515. switch (ev.code) {
  516. case FUT_WORKER_INIT_START:
  517. handle_worker_init_start();
  518. break;
  519. case FUT_WORKER_INIT_END:
  520. handle_worker_init_end();
  521. break;
  522. case FUT_NEW_MEM_NODE:
  523. handle_new_mem_node();
  524. break;
  525. /* detect when the workers were idling or not */
  526. case FUT_START_CODELET_BODY:
  527. handle_start_codelet_body();
  528. break;
  529. case FUT_END_CODELET_BODY:
  530. handle_end_codelet_body();
  531. break;
  532. case FUT_START_CALLBACK:
  533. handle_start_callback();
  534. break;
  535. case FUT_END_CALLBACK:
  536. handle_end_callback();
  537. break;
  538. /* monitor stack size */
  539. case FUT_JOB_PUSH:
  540. handle_job_push();
  541. break;
  542. case FUT_JOB_POP:
  543. handle_job_pop();
  544. break;
  545. /* check the memory transfer overhead */
  546. case FUT_START_FETCH_INPUT:
  547. handle_start_fetch_input();
  548. break;
  549. case FUT_END_FETCH_INPUT:
  550. handle_end_fetch_input();
  551. break;
  552. case FUT_START_PUSH_OUTPUT:
  553. handle_start_push_output();
  554. break;
  555. case FUT_END_PUSH_OUTPUT:
  556. handle_end_push_output();
  557. break;
  558. case FUT_START_PROGRESS:
  559. handle_start_progress();
  560. break;
  561. case FUT_END_PROGRESS:
  562. handle_end_progress();
  563. break;
  564. case FUT_CODELET_TAG:
  565. //handle_codelet_tag();
  566. break;
  567. case FUT_CODELET_TAG_DEPS:
  568. handle_codelet_tag_deps();
  569. break;
  570. case FUT_TASK_DONE:
  571. handle_task_done();
  572. break;
  573. case FUT_DATA_COPY:
  574. handle_data_copy();
  575. break;
  576. case FUT_START_DRIVER_COPY:
  577. handle_start_driver_copy();
  578. break;
  579. case FUT_END_DRIVER_COPY:
  580. handle_end_driver_copy();
  581. break;
  582. case FUT_WORK_STEALING:
  583. /* XXX */
  584. break;
  585. case FUT_WORKER_DEINIT_START:
  586. handle_worker_deinit_start();
  587. break;
  588. case FUT_WORKER_DEINIT_END:
  589. handle_worker_deinit_end();
  590. break;
  591. case FUT_START_ALLOC:
  592. handle_start_alloc();
  593. break;
  594. case FUT_END_ALLOC:
  595. handle_end_alloc();
  596. break;
  597. case FUT_START_ALLOC_REUSE:
  598. handle_start_alloc_reuse();
  599. break;
  600. case FUT_END_ALLOC_REUSE:
  601. handle_end_alloc_reuse();
  602. break;
  603. case FUT_START_MEMRECLAIM:
  604. handle_start_memreclaim();
  605. break;
  606. case FUT_END_MEMRECLAIM:
  607. handle_end_memreclaim();
  608. break;
  609. case FUT_USER_EVENT:
  610. handle_user_event();
  611. break;
  612. default:
  613. fprintf(stderr, "unknown event.. %x at time %llx\n", (unsigned)ev.code, (long long unsigned)ev.time);
  614. break;
  615. }
  616. }
  617. generate_gnuplot_output();
  618. generate_svg_output();
  619. paje_output_file_terminate();
  620. terminate_dat_dot();
  621. return 0;
  622. }