1 // SPDX-License-Identifier: GPL-2.0 1 // SPDX-License-Identifier: GPL-2.0
2 /* 2 /*
3 * builtin-kwork.c 3 * builtin-kwork.c
4 * 4 *
5 * Copyright (c) 2022 Huawei Inc, Yang Jihon 5 * Copyright (c) 2022 Huawei Inc, Yang Jihong <yangjihong1@huawei.com>
6 */ 6 */
7 7
8 #include "builtin.h" 8 #include "builtin.h"
>> 9 #include "perf.h"
9 10
10 #include "util/data.h" 11 #include "util/data.h"
11 #include "util/evlist.h" 12 #include "util/evlist.h"
12 #include "util/evsel.h" 13 #include "util/evsel.h"
13 #include "util/header.h" 14 #include "util/header.h"
14 #include "util/kwork.h" 15 #include "util/kwork.h"
15 #include "util/debug.h" 16 #include "util/debug.h"
16 #include "util/session.h" 17 #include "util/session.h"
17 #include "util/symbol.h" 18 #include "util/symbol.h"
18 #include "util/thread.h" 19 #include "util/thread.h"
19 #include "util/string2.h" 20 #include "util/string2.h"
20 #include "util/callchain.h" 21 #include "util/callchain.h"
21 #include "util/evsel_fprintf.h" 22 #include "util/evsel_fprintf.h"
22 #include "util/util.h" <<
23 23
24 #include <subcmd/pager.h> 24 #include <subcmd/pager.h>
25 #include <subcmd/parse-options.h> 25 #include <subcmd/parse-options.h>
26 #include <traceevent/event-parse.h> 26 #include <traceevent/event-parse.h>
27 27
28 #include <errno.h> 28 #include <errno.h>
29 #include <inttypes.h> 29 #include <inttypes.h>
30 #include <signal.h> 30 #include <signal.h>
31 #include <linux/err.h> 31 #include <linux/err.h>
32 #include <linux/time64.h> 32 #include <linux/time64.h>
33 #include <linux/zalloc.h> 33 #include <linux/zalloc.h>
34 34
35 /* 35 /*
36 * report header elements width 36 * report header elements width
37 */ 37 */
38 #define PRINT_CPU_WIDTH 4 38 #define PRINT_CPU_WIDTH 4
39 #define PRINT_COUNT_WIDTH 9 39 #define PRINT_COUNT_WIDTH 9
40 #define PRINT_RUNTIME_WIDTH 10 40 #define PRINT_RUNTIME_WIDTH 10
41 #define PRINT_LATENCY_WIDTH 10 41 #define PRINT_LATENCY_WIDTH 10
42 #define PRINT_TIMESTAMP_WIDTH 17 42 #define PRINT_TIMESTAMP_WIDTH 17
43 #define PRINT_KWORK_NAME_WIDTH 30 43 #define PRINT_KWORK_NAME_WIDTH 30
44 #define RPINT_DECIMAL_WIDTH 3 44 #define RPINT_DECIMAL_WIDTH 3
45 #define PRINT_BRACKETPAIR_WIDTH 2 45 #define PRINT_BRACKETPAIR_WIDTH 2
46 #define PRINT_TIME_UNIT_SEC_WIDTH 2 46 #define PRINT_TIME_UNIT_SEC_WIDTH 2
47 #define PRINT_TIME_UNIT_MESC_WIDTH 3 47 #define PRINT_TIME_UNIT_MESC_WIDTH 3
48 #define PRINT_PID_WIDTH 7 <<
49 #define PRINT_TASK_NAME_WIDTH 16 <<
50 #define PRINT_CPU_USAGE_WIDTH 6 <<
51 #define PRINT_CPU_USAGE_DECIMAL_WIDTH 2 <<
52 #define PRINT_CPU_USAGE_HIST_WIDTH 30 <<
53 #define PRINT_RUNTIME_HEADER_WIDTH (PRINT_RUNT 48 #define PRINT_RUNTIME_HEADER_WIDTH (PRINT_RUNTIME_WIDTH + PRINT_TIME_UNIT_MESC_WIDTH)
54 #define PRINT_LATENCY_HEADER_WIDTH (PRINT_LATE 49 #define PRINT_LATENCY_HEADER_WIDTH (PRINT_LATENCY_WIDTH + PRINT_TIME_UNIT_MESC_WIDTH)
55 #define PRINT_TIMEHIST_CPU_WIDTH (PRINT_CPU_WI 50 #define PRINT_TIMEHIST_CPU_WIDTH (PRINT_CPU_WIDTH + PRINT_BRACKETPAIR_WIDTH)
56 #define PRINT_TIMESTAMP_HEADER_WIDTH (PRINT_TI 51 #define PRINT_TIMESTAMP_HEADER_WIDTH (PRINT_TIMESTAMP_WIDTH + PRINT_TIME_UNIT_SEC_WIDTH)
57 52
58 struct sort_dimension { 53 struct sort_dimension {
59 const char *name; 54 const char *name;
60 int (*cmp)(struct kwork_wo 55 int (*cmp)(struct kwork_work *l, struct kwork_work *r);
61 struct list_head list; 56 struct list_head list;
62 }; 57 };
63 58
64 static int id_cmp(struct kwork_work *l, struct 59 static int id_cmp(struct kwork_work *l, struct kwork_work *r)
65 { 60 {
66 if (l->cpu > r->cpu) 61 if (l->cpu > r->cpu)
67 return 1; 62 return 1;
68 if (l->cpu < r->cpu) 63 if (l->cpu < r->cpu)
69 return -1; 64 return -1;
70 65
71 if (l->id > r->id) 66 if (l->id > r->id)
72 return 1; 67 return 1;
73 if (l->id < r->id) 68 if (l->id < r->id)
74 return -1; 69 return -1;
75 70
76 return 0; 71 return 0;
77 } 72 }
78 73
79 static int count_cmp(struct kwork_work *l, str 74 static int count_cmp(struct kwork_work *l, struct kwork_work *r)
80 { 75 {
81 if (l->nr_atoms > r->nr_atoms) 76 if (l->nr_atoms > r->nr_atoms)
82 return 1; 77 return 1;
83 if (l->nr_atoms < r->nr_atoms) 78 if (l->nr_atoms < r->nr_atoms)
84 return -1; 79 return -1;
85 80
86 return 0; 81 return 0;
87 } 82 }
88 83
89 static int runtime_cmp(struct kwork_work *l, s 84 static int runtime_cmp(struct kwork_work *l, struct kwork_work *r)
90 { 85 {
91 if (l->total_runtime > r->total_runtim 86 if (l->total_runtime > r->total_runtime)
92 return 1; 87 return 1;
93 if (l->total_runtime < r->total_runtim 88 if (l->total_runtime < r->total_runtime)
94 return -1; 89 return -1;
95 90
96 return 0; 91 return 0;
97 } 92 }
98 93
99 static int max_runtime_cmp(struct kwork_work * 94 static int max_runtime_cmp(struct kwork_work *l, struct kwork_work *r)
100 { 95 {
101 if (l->max_runtime > r->max_runtime) 96 if (l->max_runtime > r->max_runtime)
102 return 1; 97 return 1;
103 if (l->max_runtime < r->max_runtime) 98 if (l->max_runtime < r->max_runtime)
104 return -1; 99 return -1;
105 100
106 return 0; 101 return 0;
107 } 102 }
108 103
109 static int avg_latency_cmp(struct kwork_work * 104 static int avg_latency_cmp(struct kwork_work *l, struct kwork_work *r)
110 { 105 {
111 u64 avgl, avgr; 106 u64 avgl, avgr;
112 107
113 if (!r->nr_atoms) 108 if (!r->nr_atoms)
114 return 1; 109 return 1;
115 if (!l->nr_atoms) 110 if (!l->nr_atoms)
116 return -1; 111 return -1;
117 112
118 avgl = l->total_latency / l->nr_atoms; 113 avgl = l->total_latency / l->nr_atoms;
119 avgr = r->total_latency / r->nr_atoms; 114 avgr = r->total_latency / r->nr_atoms;
120 115
121 if (avgl > avgr) 116 if (avgl > avgr)
122 return 1; 117 return 1;
123 if (avgl < avgr) 118 if (avgl < avgr)
124 return -1; 119 return -1;
125 120
126 return 0; 121 return 0;
127 } 122 }
128 123
129 static int max_latency_cmp(struct kwork_work * 124 static int max_latency_cmp(struct kwork_work *l, struct kwork_work *r)
130 { 125 {
131 if (l->max_latency > r->max_latency) 126 if (l->max_latency > r->max_latency)
132 return 1; 127 return 1;
133 if (l->max_latency < r->max_latency) 128 if (l->max_latency < r->max_latency)
134 return -1; 129 return -1;
135 130
136 return 0; 131 return 0;
137 } 132 }
138 133
139 static int cpu_usage_cmp(struct kwork_work *l, <<
140 { <<
141 if (l->cpu_usage > r->cpu_usage) <<
142 return 1; <<
143 if (l->cpu_usage < r->cpu_usage) <<
144 return -1; <<
145 <<
146 return 0; <<
147 } <<
148 <<
149 static int id_or_cpu_r_cmp(struct kwork_work * <<
150 { <<
151 if (l->id < r->id) <<
152 return 1; <<
153 if (l->id > r->id) <<
154 return -1; <<
155 <<
156 if (l->id != 0) <<
157 return 0; <<
158 <<
159 if (l->cpu < r->cpu) <<
160 return 1; <<
161 if (l->cpu > r->cpu) <<
162 return -1; <<
163 <<
164 return 0; <<
165 } <<
166 <<
167 static int sort_dimension__add(struct perf_kwo 134 static int sort_dimension__add(struct perf_kwork *kwork __maybe_unused,
168 const char *tok 135 const char *tok, struct list_head *list)
169 { 136 {
170 size_t i; 137 size_t i;
171 static struct sort_dimension max_sort_ 138 static struct sort_dimension max_sort_dimension = {
172 .name = "max", 139 .name = "max",
173 .cmp = max_runtime_cmp, 140 .cmp = max_runtime_cmp,
174 }; 141 };
175 static struct sort_dimension id_sort_d 142 static struct sort_dimension id_sort_dimension = {
176 .name = "id", 143 .name = "id",
177 .cmp = id_cmp, 144 .cmp = id_cmp,
178 }; 145 };
179 static struct sort_dimension runtime_s 146 static struct sort_dimension runtime_sort_dimension = {
180 .name = "runtime", 147 .name = "runtime",
181 .cmp = runtime_cmp, 148 .cmp = runtime_cmp,
182 }; 149 };
183 static struct sort_dimension count_sor 150 static struct sort_dimension count_sort_dimension = {
184 .name = "count", 151 .name = "count",
185 .cmp = count_cmp, 152 .cmp = count_cmp,
186 }; 153 };
187 static struct sort_dimension avg_sort_ 154 static struct sort_dimension avg_sort_dimension = {
188 .name = "avg", 155 .name = "avg",
189 .cmp = avg_latency_cmp, 156 .cmp = avg_latency_cmp,
190 }; 157 };
191 static struct sort_dimension rate_sort <<
192 .name = "rate", <<
193 .cmp = cpu_usage_cmp, <<
194 }; <<
195 static struct sort_dimension tid_sort_ <<
196 .name = "tid", <<
197 .cmp = id_or_cpu_r_cmp, <<
198 }; <<
199 struct sort_dimension *available_sorts 158 struct sort_dimension *available_sorts[] = {
200 &id_sort_dimension, 159 &id_sort_dimension,
201 &max_sort_dimension, 160 &max_sort_dimension,
202 &count_sort_dimension, 161 &count_sort_dimension,
203 &runtime_sort_dimension, 162 &runtime_sort_dimension,
204 &avg_sort_dimension, 163 &avg_sort_dimension,
205 &rate_sort_dimension, <<
206 &tid_sort_dimension, <<
207 }; 164 };
208 165
209 if (kwork->report == KWORK_REPORT_LATE 166 if (kwork->report == KWORK_REPORT_LATENCY)
210 max_sort_dimension.cmp = max_l 167 max_sort_dimension.cmp = max_latency_cmp;
211 168
212 for (i = 0; i < ARRAY_SIZE(available_s 169 for (i = 0; i < ARRAY_SIZE(available_sorts); i++) {
213 if (!strcmp(available_sorts[i] 170 if (!strcmp(available_sorts[i]->name, tok)) {
214 list_add_tail(&availab 171 list_add_tail(&available_sorts[i]->list, list);
215 return 0; 172 return 0;
216 } 173 }
217 } 174 }
218 175
219 return -1; 176 return -1;
220 } 177 }
221 178
222 static void setup_sorting(struct perf_kwork *k 179 static void setup_sorting(struct perf_kwork *kwork,
223 const struct option 180 const struct option *options,
224 const char * const u 181 const char * const usage_msg[])
225 { 182 {
226 char *tmp, *tok, *str = strdup(kwork-> 183 char *tmp, *tok, *str = strdup(kwork->sort_order);
227 184
228 for (tok = strtok_r(str, ", ", &tmp); 185 for (tok = strtok_r(str, ", ", &tmp);
229 tok; tok = strtok_r(NULL, ", ", & 186 tok; tok = strtok_r(NULL, ", ", &tmp)) {
230 if (sort_dimension__add(kwork, 187 if (sort_dimension__add(kwork, tok, &kwork->sort_list) < 0)
231 usage_with_options_msg 188 usage_with_options_msg(usage_msg, options,
232 189 "Unknown --sort key: `%s'", tok);
233 } 190 }
234 191
235 pr_debug("Sort order: %s\n", kwork->so 192 pr_debug("Sort order: %s\n", kwork->sort_order);
236 free(str); 193 free(str);
237 } 194 }
238 195
239 static struct kwork_atom *atom_new(struct perf 196 static struct kwork_atom *atom_new(struct perf_kwork *kwork,
240 struct perf 197 struct perf_sample *sample)
241 { 198 {
242 unsigned long i; 199 unsigned long i;
243 struct kwork_atom_page *page; 200 struct kwork_atom_page *page;
244 struct kwork_atom *atom = NULL; 201 struct kwork_atom *atom = NULL;
245 202
246 list_for_each_entry(page, &kwork->atom 203 list_for_each_entry(page, &kwork->atom_page_list, list) {
247 if (!bitmap_full(page->bitmap, 204 if (!bitmap_full(page->bitmap, NR_ATOM_PER_PAGE)) {
248 i = find_first_zero_bi 205 i = find_first_zero_bit(page->bitmap, NR_ATOM_PER_PAGE);
249 BUG_ON(i >= NR_ATOM_PE 206 BUG_ON(i >= NR_ATOM_PER_PAGE);
250 atom = &page->atoms[i] 207 atom = &page->atoms[i];
251 goto found_atom; 208 goto found_atom;
252 } 209 }
253 } 210 }
254 211
255 /* 212 /*
256 * new page 213 * new page
257 */ 214 */
258 page = zalloc(sizeof(*page)); 215 page = zalloc(sizeof(*page));
259 if (page == NULL) { 216 if (page == NULL) {
260 pr_err("Failed to zalloc kwork 217 pr_err("Failed to zalloc kwork atom page\n");
261 return NULL; 218 return NULL;
262 } 219 }
263 220
264 i = 0; 221 i = 0;
265 atom = &page->atoms[0]; 222 atom = &page->atoms[0];
266 list_add_tail(&page->list, &kwork->ato 223 list_add_tail(&page->list, &kwork->atom_page_list);
267 224
268 found_atom: 225 found_atom:
269 __set_bit(i, page->bitmap); 226 __set_bit(i, page->bitmap);
270 atom->time = sample->time; 227 atom->time = sample->time;
271 atom->prev = NULL; 228 atom->prev = NULL;
272 atom->page_addr = page; 229 atom->page_addr = page;
273 atom->bit_inpage = i; 230 atom->bit_inpage = i;
274 return atom; 231 return atom;
275 } 232 }
276 233
277 static void atom_free(struct kwork_atom *atom) 234 static void atom_free(struct kwork_atom *atom)
278 { 235 {
279 if (atom->prev != NULL) 236 if (atom->prev != NULL)
280 atom_free(atom->prev); 237 atom_free(atom->prev);
281 238
282 __clear_bit(atom->bit_inpage, 239 __clear_bit(atom->bit_inpage,
283 ((struct kwork_atom_page * 240 ((struct kwork_atom_page *)atom->page_addr)->bitmap);
284 } 241 }
285 242
286 static void atom_del(struct kwork_atom *atom) 243 static void atom_del(struct kwork_atom *atom)
287 { 244 {
288 list_del(&atom->list); 245 list_del(&atom->list);
289 atom_free(atom); 246 atom_free(atom);
290 } 247 }
291 248
292 static int work_cmp(struct list_head *list, 249 static int work_cmp(struct list_head *list,
293 struct kwork_work *l, stru 250 struct kwork_work *l, struct kwork_work *r)
294 { 251 {
295 int ret = 0; 252 int ret = 0;
296 struct sort_dimension *sort; 253 struct sort_dimension *sort;
297 254
298 BUG_ON(list_empty(list)); 255 BUG_ON(list_empty(list));
299 256
300 list_for_each_entry(sort, list, list) 257 list_for_each_entry(sort, list, list) {
301 ret = sort->cmp(l, r); 258 ret = sort->cmp(l, r);
302 if (ret) 259 if (ret)
303 return ret; 260 return ret;
304 } 261 }
305 262
306 return ret; 263 return ret;
307 } 264 }
308 265
309 static struct kwork_work *work_search(struct r 266 static struct kwork_work *work_search(struct rb_root_cached *root,
310 struct k 267 struct kwork_work *key,
311 struct l 268 struct list_head *sort_list)
312 { 269 {
313 int cmp; 270 int cmp;
314 struct kwork_work *work; 271 struct kwork_work *work;
315 struct rb_node *node = root->rb_root.r 272 struct rb_node *node = root->rb_root.rb_node;
316 273
317 while (node) { 274 while (node) {
318 work = container_of(node, stru 275 work = container_of(node, struct kwork_work, node);
319 cmp = work_cmp(sort_list, key, 276 cmp = work_cmp(sort_list, key, work);
320 if (cmp > 0) 277 if (cmp > 0)
321 node = node->rb_left; 278 node = node->rb_left;
322 else if (cmp < 0) 279 else if (cmp < 0)
323 node = node->rb_right; 280 node = node->rb_right;
324 else { 281 else {
325 if (work->name == NULL 282 if (work->name == NULL)
326 work->name = k 283 work->name = key->name;
327 return work; 284 return work;
328 } 285 }
329 } 286 }
330 return NULL; 287 return NULL;
331 } 288 }
332 289
333 static void work_insert(struct rb_root_cached 290 static void work_insert(struct rb_root_cached *root,
334 struct kwork_work *key 291 struct kwork_work *key, struct list_head *sort_list)
335 { 292 {
336 int cmp; 293 int cmp;
337 bool leftmost = true; 294 bool leftmost = true;
338 struct kwork_work *cur; 295 struct kwork_work *cur;
339 struct rb_node **new = &(root->rb_root 296 struct rb_node **new = &(root->rb_root.rb_node), *parent = NULL;
340 297
341 while (*new) { 298 while (*new) {
342 cur = container_of(*new, struc 299 cur = container_of(*new, struct kwork_work, node);
343 parent = *new; 300 parent = *new;
344 cmp = work_cmp(sort_list, key, 301 cmp = work_cmp(sort_list, key, cur);
345 302
346 if (cmp > 0) 303 if (cmp > 0)
347 new = &((*new)->rb_lef 304 new = &((*new)->rb_left);
348 else { 305 else {
349 new = &((*new)->rb_rig 306 new = &((*new)->rb_right);
350 leftmost = false; 307 leftmost = false;
351 } 308 }
352 } 309 }
353 310
354 rb_link_node(&key->node, parent, new); 311 rb_link_node(&key->node, parent, new);
355 rb_insert_color_cached(&key->node, roo 312 rb_insert_color_cached(&key->node, root, leftmost);
356 } 313 }
357 314
358 static struct kwork_work *work_new(struct kwor 315 static struct kwork_work *work_new(struct kwork_work *key)
359 { 316 {
360 int i; 317 int i;
361 struct kwork_work *work = zalloc(sizeo 318 struct kwork_work *work = zalloc(sizeof(*work));
362 319
363 if (work == NULL) { 320 if (work == NULL) {
364 pr_err("Failed to zalloc kwork 321 pr_err("Failed to zalloc kwork work\n");
365 return NULL; 322 return NULL;
366 } 323 }
367 324
368 for (i = 0; i < KWORK_TRACE_MAX; i++) 325 for (i = 0; i < KWORK_TRACE_MAX; i++)
369 INIT_LIST_HEAD(&work->atom_lis 326 INIT_LIST_HEAD(&work->atom_list[i]);
370 327
371 work->id = key->id; 328 work->id = key->id;
372 work->cpu = key->cpu; 329 work->cpu = key->cpu;
373 work->name = key->name; 330 work->name = key->name;
374 work->class = key->class; 331 work->class = key->class;
375 return work; 332 return work;
376 } 333 }
377 334
378 static struct kwork_work *work_findnew(struct 335 static struct kwork_work *work_findnew(struct rb_root_cached *root,
379 struct 336 struct kwork_work *key,
380 struct 337 struct list_head *sort_list)
381 { 338 {
382 struct kwork_work *work = work_search( 339 struct kwork_work *work = work_search(root, key, sort_list);
383 340
384 if (work != NULL) 341 if (work != NULL)
385 return work; 342 return work;
386 343
387 work = work_new(key); 344 work = work_new(key);
388 if (work) 345 if (work)
389 work_insert(root, work, sort_l 346 work_insert(root, work, sort_list);
390 347
391 return work; 348 return work;
392 } 349 }
393 350
394 static void profile_update_timespan(struct per 351 static void profile_update_timespan(struct perf_kwork *kwork,
395 struct per 352 struct perf_sample *sample)
396 { 353 {
397 if (!kwork->summary) 354 if (!kwork->summary)
398 return; 355 return;
399 356
400 if ((kwork->timestart == 0) || (kwork- 357 if ((kwork->timestart == 0) || (kwork->timestart > sample->time))
401 kwork->timestart = sample->tim 358 kwork->timestart = sample->time;
402 359
403 if (kwork->timeend < sample->time) 360 if (kwork->timeend < sample->time)
404 kwork->timeend = sample->time; 361 kwork->timeend = sample->time;
405 } 362 }
406 363
407 static bool profile_name_match(struct perf_kwo <<
408 struct kwork_wo <<
409 { <<
410 if (kwork->profile_name && work->name <<
411 (strcmp(work->name, kwork->profile <<
412 return false; <<
413 } <<
414 <<
415 return true; <<
416 } <<
417 <<
418 static bool profile_event_match(struct perf_kw 364 static bool profile_event_match(struct perf_kwork *kwork,
419 struct kwork_w 365 struct kwork_work *work,
420 struct perf_sa 366 struct perf_sample *sample)
421 { 367 {
422 int cpu = work->cpu; 368 int cpu = work->cpu;
423 u64 time = sample->time; 369 u64 time = sample->time;
424 struct perf_time_interval *ptime = &kw 370 struct perf_time_interval *ptime = &kwork->ptime;
425 371
426 if ((kwork->cpu_list != NULL) && !test 372 if ((kwork->cpu_list != NULL) && !test_bit(cpu, kwork->cpu_bitmap))
427 return false; 373 return false;
428 374
429 if (((ptime->start != 0) && (ptime->st 375 if (((ptime->start != 0) && (ptime->start > time)) ||
430 ((ptime->end != 0) && (ptime->end 376 ((ptime->end != 0) && (ptime->end < time)))
431 return false; 377 return false;
432 378
433 /* !! 379 if ((kwork->profile_name != NULL) &&
434 * report top needs to collect the run !! 380 (work->name != NULL) &&
435 * calculate the load of each core. !! 381 (strcmp(work->name, kwork->profile_name) != 0))
436 */ <<
437 if ((kwork->report != KWORK_REPORT_TOP <<
438 !profile_name_match(kwork, work)) <<
439 return false; 382 return false;
440 } <<
441 383
442 profile_update_timespan(kwork, sample) 384 profile_update_timespan(kwork, sample);
443 return true; 385 return true;
444 } 386 }
445 387
446 static int work_push_atom(struct perf_kwork *k 388 static int work_push_atom(struct perf_kwork *kwork,
447 struct kwork_class * 389 struct kwork_class *class,
448 enum kwork_trace_typ 390 enum kwork_trace_type src_type,
449 enum kwork_trace_typ 391 enum kwork_trace_type dst_type,
450 struct evsel *evsel, 392 struct evsel *evsel,
451 struct perf_sample * 393 struct perf_sample *sample,
452 struct machine *mach 394 struct machine *machine,
453 struct kwork_work ** !! 395 struct kwork_work **ret_work)
454 bool overwrite) <<
455 { 396 {
456 struct kwork_atom *atom, *dst_atom, *l !! 397 struct kwork_atom *atom, *dst_atom;
457 struct kwork_work *work, key; 398 struct kwork_work *work, key;
458 399
459 BUG_ON(class->work_init == NULL); 400 BUG_ON(class->work_init == NULL);
460 class->work_init(kwork, class, &key, s !! 401 class->work_init(class, &key, evsel, sample, machine);
461 402
462 atom = atom_new(kwork, sample); 403 atom = atom_new(kwork, sample);
463 if (atom == NULL) 404 if (atom == NULL)
464 return -1; 405 return -1;
465 406
466 work = work_findnew(&class->work_root, 407 work = work_findnew(&class->work_root, &key, &kwork->cmp_id);
467 if (work == NULL) { 408 if (work == NULL) {
468 atom_free(atom); !! 409 free(atom);
469 return -1; 410 return -1;
470 } 411 }
471 412
472 if (!profile_event_match(kwork, work, !! 413 if (!profile_event_match(kwork, work, sample))
473 atom_free(atom); <<
474 return 0; 414 return 0;
475 } <<
476 415
477 if (dst_type < KWORK_TRACE_MAX) { 416 if (dst_type < KWORK_TRACE_MAX) {
478 dst_atom = list_last_entry_or_ 417 dst_atom = list_last_entry_or_null(&work->atom_list[dst_type],
479 418 struct kwork_atom, list);
480 if (dst_atom != NULL) { 419 if (dst_atom != NULL) {
481 atom->prev = dst_atom; 420 atom->prev = dst_atom;
482 list_del(&dst_atom->li 421 list_del(&dst_atom->list);
483 } 422 }
484 } 423 }
485 424
486 if (ret_work != NULL) 425 if (ret_work != NULL)
487 *ret_work = work; 426 *ret_work = work;
488 427
489 if (overwrite) { <<
490 last_atom = list_last_entry_or <<
491 <<
492 if (last_atom) { <<
493 atom_del(last_atom); <<
494 <<
495 kwork->nr_skipped_even <<
496 kwork->nr_skipped_even <<
497 } <<
498 } <<
499 <<
500 list_add_tail(&atom->list, &work->atom 428 list_add_tail(&atom->list, &work->atom_list[src_type]);
501 429
502 return 0; 430 return 0;
503 } 431 }
504 432
505 static struct kwork_atom *work_pop_atom(struct 433 static struct kwork_atom *work_pop_atom(struct perf_kwork *kwork,
506 struct 434 struct kwork_class *class,
507 enum k 435 enum kwork_trace_type src_type,
508 enum k 436 enum kwork_trace_type dst_type,
509 struct 437 struct evsel *evsel,
510 struct 438 struct perf_sample *sample,
511 struct 439 struct machine *machine,
512 struct 440 struct kwork_work **ret_work)
513 { 441 {
514 struct kwork_atom *atom, *src_atom; 442 struct kwork_atom *atom, *src_atom;
515 struct kwork_work *work, key; 443 struct kwork_work *work, key;
516 444
517 BUG_ON(class->work_init == NULL); 445 BUG_ON(class->work_init == NULL);
518 class->work_init(kwork, class, &key, s !! 446 class->work_init(class, &key, evsel, sample, machine);
519 447
520 work = work_findnew(&class->work_root, 448 work = work_findnew(&class->work_root, &key, &kwork->cmp_id);
521 if (ret_work != NULL) 449 if (ret_work != NULL)
522 *ret_work = work; 450 *ret_work = work;
523 451
524 if (work == NULL) 452 if (work == NULL)
525 return NULL; 453 return NULL;
526 454
527 if (!profile_event_match(kwork, work, 455 if (!profile_event_match(kwork, work, sample))
528 return NULL; 456 return NULL;
529 457
530 atom = list_last_entry_or_null(&work-> 458 atom = list_last_entry_or_null(&work->atom_list[dst_type],
531 struct 459 struct kwork_atom, list);
532 if (atom != NULL) 460 if (atom != NULL)
533 return atom; 461 return atom;
534 462
535 src_atom = atom_new(kwork, sample); 463 src_atom = atom_new(kwork, sample);
536 if (src_atom != NULL) 464 if (src_atom != NULL)
537 list_add_tail(&src_atom->list, 465 list_add_tail(&src_atom->list, &work->atom_list[src_type]);
538 else { 466 else {
539 if (ret_work != NULL) 467 if (ret_work != NULL)
540 *ret_work = NULL; 468 *ret_work = NULL;
541 } 469 }
542 470
543 return NULL; 471 return NULL;
544 } 472 }
545 473
546 static struct kwork_work *find_work_by_id(stru <<
547 u64 <<
548 { <<
549 struct rb_node *next; <<
550 struct kwork_work *work; <<
551 <<
552 next = rb_first_cached(root); <<
553 while (next) { <<
554 work = rb_entry(next, struct k <<
555 if ((cpu != -1 && work->id == <<
556 (cpu == -1 && work->id == <<
557 return work; <<
558 <<
559 next = rb_next(next); <<
560 } <<
561 <<
562 return NULL; <<
563 } <<
564 <<
565 static struct kwork_class *get_kwork_class(str <<
566 enu <<
567 { <<
568 struct kwork_class *class; <<
569 <<
570 list_for_each_entry(class, &kwork->cla <<
571 if (class->type == type) <<
572 return class; <<
573 } <<
574 <<
575 return NULL; <<
576 } <<
577 <<
578 static void report_update_exit_event(struct kw 474 static void report_update_exit_event(struct kwork_work *work,
579 struct kw 475 struct kwork_atom *atom,
580 struct pe 476 struct perf_sample *sample)
581 { 477 {
582 u64 delta; 478 u64 delta;
583 u64 exit_time = sample->time; 479 u64 exit_time = sample->time;
584 u64 entry_time = atom->time; 480 u64 entry_time = atom->time;
585 481
586 if ((entry_time != 0) && (exit_time >= 482 if ((entry_time != 0) && (exit_time >= entry_time)) {
587 delta = exit_time - entry_time 483 delta = exit_time - entry_time;
588 if ((delta > work->max_runtime 484 if ((delta > work->max_runtime) ||
589 (work->max_runtime == 0)) 485 (work->max_runtime == 0)) {
590 work->max_runtime = de 486 work->max_runtime = delta;
591 work->max_runtime_star 487 work->max_runtime_start = entry_time;
592 work->max_runtime_end 488 work->max_runtime_end = exit_time;
593 } 489 }
594 work->total_runtime += delta; 490 work->total_runtime += delta;
595 work->nr_atoms++; 491 work->nr_atoms++;
596 } 492 }
597 } 493 }
598 494
599 static int report_entry_event(struct perf_kwor 495 static int report_entry_event(struct perf_kwork *kwork,
600 struct kwork_cla 496 struct kwork_class *class,
601 struct evsel *ev 497 struct evsel *evsel,
602 struct perf_samp 498 struct perf_sample *sample,
603 struct machine * 499 struct machine *machine)
604 { 500 {
605 return work_push_atom(kwork, class, KW 501 return work_push_atom(kwork, class, KWORK_TRACE_ENTRY,
606 KWORK_TRACE_MAX, 502 KWORK_TRACE_MAX, evsel, sample,
607 machine, NULL, t !! 503 machine, NULL);
608 } 504 }
609 505
610 static int report_exit_event(struct perf_kwork 506 static int report_exit_event(struct perf_kwork *kwork,
611 struct kwork_clas 507 struct kwork_class *class,
612 struct evsel *evs 508 struct evsel *evsel,
613 struct perf_sampl 509 struct perf_sample *sample,
614 struct machine *m 510 struct machine *machine)
615 { 511 {
616 struct kwork_atom *atom = NULL; 512 struct kwork_atom *atom = NULL;
617 struct kwork_work *work = NULL; 513 struct kwork_work *work = NULL;
618 514
619 atom = work_pop_atom(kwork, class, KWO 515 atom = work_pop_atom(kwork, class, KWORK_TRACE_EXIT,
620 KWORK_TRACE_ENTRY 516 KWORK_TRACE_ENTRY, evsel, sample,
621 machine, &work); 517 machine, &work);
622 if (work == NULL) 518 if (work == NULL)
623 return -1; 519 return -1;
624 520
625 if (atom != NULL) { 521 if (atom != NULL) {
626 report_update_exit_event(work, 522 report_update_exit_event(work, atom, sample);
627 atom_del(atom); 523 atom_del(atom);
628 } 524 }
629 525
630 return 0; 526 return 0;
631 } 527 }
632 528
633 static void latency_update_entry_event(struct 529 static void latency_update_entry_event(struct kwork_work *work,
634 struct 530 struct kwork_atom *atom,
635 struct 531 struct perf_sample *sample)
636 { 532 {
637 u64 delta; 533 u64 delta;
638 u64 entry_time = sample->time; 534 u64 entry_time = sample->time;
639 u64 raise_time = atom->time; 535 u64 raise_time = atom->time;
640 536
641 if ((raise_time != 0) && (entry_time > 537 if ((raise_time != 0) && (entry_time >= raise_time)) {
642 delta = entry_time - raise_tim 538 delta = entry_time - raise_time;
643 if ((delta > work->max_latency 539 if ((delta > work->max_latency) ||
644 (work->max_latency == 0)) 540 (work->max_latency == 0)) {
645 work->max_latency = de 541 work->max_latency = delta;
646 work->max_latency_star 542 work->max_latency_start = raise_time;
647 work->max_latency_end 543 work->max_latency_end = entry_time;
648 } 544 }
649 work->total_latency += delta; 545 work->total_latency += delta;
650 work->nr_atoms++; 546 work->nr_atoms++;
651 } 547 }
652 } 548 }
653 549
654 static int latency_raise_event(struct perf_kwo 550 static int latency_raise_event(struct perf_kwork *kwork,
655 struct kwork_cl 551 struct kwork_class *class,
656 struct evsel *e 552 struct evsel *evsel,
657 struct perf_sam 553 struct perf_sample *sample,
658 struct machine 554 struct machine *machine)
659 { 555 {
660 return work_push_atom(kwork, class, KW 556 return work_push_atom(kwork, class, KWORK_TRACE_RAISE,
661 KWORK_TRACE_MAX, 557 KWORK_TRACE_MAX, evsel, sample,
662 machine, NULL, t !! 558 machine, NULL);
663 } 559 }
664 560
665 static int latency_entry_event(struct perf_kwo 561 static int latency_entry_event(struct perf_kwork *kwork,
666 struct kwork_cl 562 struct kwork_class *class,
667 struct evsel *e 563 struct evsel *evsel,
668 struct perf_sam 564 struct perf_sample *sample,
669 struct machine 565 struct machine *machine)
670 { 566 {
671 struct kwork_atom *atom = NULL; 567 struct kwork_atom *atom = NULL;
672 struct kwork_work *work = NULL; 568 struct kwork_work *work = NULL;
673 569
674 atom = work_pop_atom(kwork, class, KWO 570 atom = work_pop_atom(kwork, class, KWORK_TRACE_ENTRY,
675 KWORK_TRACE_RAISE 571 KWORK_TRACE_RAISE, evsel, sample,
676 machine, &work); 572 machine, &work);
677 if (work == NULL) 573 if (work == NULL)
678 return -1; 574 return -1;
679 575
680 if (atom != NULL) { 576 if (atom != NULL) {
681 latency_update_entry_event(wor 577 latency_update_entry_event(work, atom, sample);
682 atom_del(atom); 578 atom_del(atom);
683 } 579 }
684 580
685 return 0; 581 return 0;
686 } 582 }
687 583
688 static void timehist_save_callchain(struct per 584 static void timehist_save_callchain(struct perf_kwork *kwork,
689 struct per 585 struct perf_sample *sample,
690 struct evs 586 struct evsel *evsel,
691 struct mac 587 struct machine *machine)
692 { 588 {
693 struct symbol *sym; 589 struct symbol *sym;
694 struct thread *thread; 590 struct thread *thread;
695 struct callchain_cursor_node *node; 591 struct callchain_cursor_node *node;
696 struct callchain_cursor *cursor; !! 592 struct callchain_cursor *cursor = &callchain_cursor;
697 593
698 if (!kwork->show_callchain || sample-> 594 if (!kwork->show_callchain || sample->callchain == NULL)
699 return; 595 return;
700 596
701 /* want main thread for process - has 597 /* want main thread for process - has maps */
702 thread = machine__findnew_thread(machi 598 thread = machine__findnew_thread(machine, sample->pid, sample->pid);
703 if (thread == NULL) { 599 if (thread == NULL) {
704 pr_debug("Failed to get thread 600 pr_debug("Failed to get thread for pid %d\n", sample->pid);
705 return; 601 return;
706 } 602 }
707 603
708 cursor = get_tls_callchain_cursor(); <<
709 <<
710 if (thread__resolve_callchain(thread, 604 if (thread__resolve_callchain(thread, cursor, evsel, sample,
711 NULL, NU 605 NULL, NULL, kwork->max_stack + 2) != 0) {
712 pr_debug("Failed to resolve ca 606 pr_debug("Failed to resolve callchain, skipping\n");
713 goto out_put; 607 goto out_put;
714 } 608 }
715 609
716 callchain_cursor_commit(cursor); 610 callchain_cursor_commit(cursor);
717 611
718 while (true) { 612 while (true) {
719 node = callchain_cursor_curren 613 node = callchain_cursor_current(cursor);
720 if (node == NULL) 614 if (node == NULL)
721 break; 615 break;
722 616
723 sym = node->ms.sym; 617 sym = node->ms.sym;
724 if (sym) { 618 if (sym) {
725 if (!strcmp(sym->name, 619 if (!strcmp(sym->name, "__softirqentry_text_start") ||
726 !strcmp(sym->name, 620 !strcmp(sym->name, "__do_softirq"))
727 sym->ignore = 621 sym->ignore = 1;
728 } 622 }
729 623
730 callchain_cursor_advance(curso 624 callchain_cursor_advance(cursor);
731 } 625 }
732 626
733 out_put: 627 out_put:
734 thread__put(thread); 628 thread__put(thread);
735 } 629 }
736 630
737 static void timehist_print_event(struct perf_k 631 static void timehist_print_event(struct perf_kwork *kwork,
738 struct kwork_ 632 struct kwork_work *work,
739 struct kwork_ 633 struct kwork_atom *atom,
740 struct perf_s 634 struct perf_sample *sample,
741 struct addr_l 635 struct addr_location *al)
742 { 636 {
743 char entrytime[32], exittime[32]; 637 char entrytime[32], exittime[32];
744 char kwork_name[PRINT_KWORK_NAME_WIDTH 638 char kwork_name[PRINT_KWORK_NAME_WIDTH];
745 639
746 /* 640 /*
747 * runtime start 641 * runtime start
748 */ 642 */
749 timestamp__scnprintf_usec(atom->time, 643 timestamp__scnprintf_usec(atom->time,
750 entrytime, s 644 entrytime, sizeof(entrytime));
751 printf(" %*s ", PRINT_TIMESTAMP_WIDTH, 645 printf(" %*s ", PRINT_TIMESTAMP_WIDTH, entrytime);
752 646
753 /* 647 /*
754 * runtime end 648 * runtime end
755 */ 649 */
756 timestamp__scnprintf_usec(sample->time 650 timestamp__scnprintf_usec(sample->time,
757 exittime, si 651 exittime, sizeof(exittime));
758 printf(" %*s ", PRINT_TIMESTAMP_WIDTH, 652 printf(" %*s ", PRINT_TIMESTAMP_WIDTH, exittime);
759 653
760 /* 654 /*
761 * cpu 655 * cpu
762 */ 656 */
763 printf(" [%0*d] ", PRINT_CPU_WIDTH, wo 657 printf(" [%0*d] ", PRINT_CPU_WIDTH, work->cpu);
764 658
765 /* 659 /*
766 * kwork name 660 * kwork name
767 */ 661 */
768 if (work->class && work->class->work_n 662 if (work->class && work->class->work_name) {
769 work->class->work_name(work, k 663 work->class->work_name(work, kwork_name,
770 PRINT_K 664 PRINT_KWORK_NAME_WIDTH);
771 printf(" %-*s ", PRINT_KWORK_N 665 printf(" %-*s ", PRINT_KWORK_NAME_WIDTH, kwork_name);
772 } else 666 } else
773 printf(" %-*s ", PRINT_KWORK_N 667 printf(" %-*s ", PRINT_KWORK_NAME_WIDTH, "");
774 668
775 /* 669 /*
776 *runtime 670 *runtime
777 */ 671 */
778 printf(" %*.*f ", 672 printf(" %*.*f ",
779 PRINT_RUNTIME_WIDTH, RPINT_DECI 673 PRINT_RUNTIME_WIDTH, RPINT_DECIMAL_WIDTH,
780 (double)(sample->time - atom->t 674 (double)(sample->time - atom->time) / NSEC_PER_MSEC);
781 675
782 /* 676 /*
783 * delaytime 677 * delaytime
784 */ 678 */
785 if (atom->prev != NULL) 679 if (atom->prev != NULL)
786 printf(" %*.*f ", PRINT_LATENC 680 printf(" %*.*f ", PRINT_LATENCY_WIDTH, RPINT_DECIMAL_WIDTH,
787 (double)(atom->time - a 681 (double)(atom->time - atom->prev->time) / NSEC_PER_MSEC);
788 else 682 else
789 printf(" %*s ", PRINT_LATENCY_ 683 printf(" %*s ", PRINT_LATENCY_WIDTH, " ");
790 684
791 /* 685 /*
792 * callchain 686 * callchain
793 */ 687 */
794 if (kwork->show_callchain) { 688 if (kwork->show_callchain) {
795 struct callchain_cursor *curso <<
796 <<
797 if (cursor == NULL) <<
798 return; <<
799 <<
800 printf(" "); 689 printf(" ");
801 <<
802 sample__fprintf_sym(sample, al 690 sample__fprintf_sym(sample, al, 0,
803 EVSEL__PRI 691 EVSEL__PRINT_SYM | EVSEL__PRINT_ONELINE |
804 EVSEL__PRI 692 EVSEL__PRINT_CALLCHAIN_ARROW |
805 EVSEL__PRI 693 EVSEL__PRINT_SKIP_IGNORED,
806 cursor, sy !! 694 &callchain_cursor, symbol_conf.bt_stop_list,
807 stdout); 695 stdout);
808 } 696 }
809 697
810 printf("\n"); 698 printf("\n");
811 } 699 }
812 700
813 static int timehist_raise_event(struct perf_kw 701 static int timehist_raise_event(struct perf_kwork *kwork,
814 struct kwork_c 702 struct kwork_class *class,
815 struct evsel * 703 struct evsel *evsel,
816 struct perf_sa 704 struct perf_sample *sample,
817 struct machine 705 struct machine *machine)
818 { 706 {
819 return work_push_atom(kwork, class, KW 707 return work_push_atom(kwork, class, KWORK_TRACE_RAISE,
820 KWORK_TRACE_MAX, 708 KWORK_TRACE_MAX, evsel, sample,
821 machine, NULL, t !! 709 machine, NULL);
822 } 710 }
823 711
824 static int timehist_entry_event(struct perf_kw 712 static int timehist_entry_event(struct perf_kwork *kwork,
825 struct kwork_c 713 struct kwork_class *class,
826 struct evsel * 714 struct evsel *evsel,
827 struct perf_sa 715 struct perf_sample *sample,
828 struct machine 716 struct machine *machine)
829 { 717 {
830 int ret; 718 int ret;
831 struct kwork_work *work = NULL; 719 struct kwork_work *work = NULL;
832 720
833 ret = work_push_atom(kwork, class, KWO 721 ret = work_push_atom(kwork, class, KWORK_TRACE_ENTRY,
834 KWORK_TRACE_RAISE 722 KWORK_TRACE_RAISE, evsel, sample,
835 machine, &work, t !! 723 machine, &work);
836 if (ret) 724 if (ret)
837 return ret; 725 return ret;
838 726
839 if (work != NULL) 727 if (work != NULL)
840 timehist_save_callchain(kwork, 728 timehist_save_callchain(kwork, sample, evsel, machine);
841 729
842 return 0; 730 return 0;
843 } 731 }
844 732
845 static int timehist_exit_event(struct perf_kwo 733 static int timehist_exit_event(struct perf_kwork *kwork,
846 struct kwork_cl 734 struct kwork_class *class,
847 struct evsel *e 735 struct evsel *evsel,
848 struct perf_sam 736 struct perf_sample *sample,
849 struct machine 737 struct machine *machine)
850 { 738 {
851 struct kwork_atom *atom = NULL; 739 struct kwork_atom *atom = NULL;
852 struct kwork_work *work = NULL; 740 struct kwork_work *work = NULL;
853 struct addr_location al; 741 struct addr_location al;
854 int ret = 0; <<
855 742
856 addr_location__init(&al); <<
857 if (machine__resolve(machine, &al, sam 743 if (machine__resolve(machine, &al, sample) < 0) {
858 pr_debug("Problem processing e 744 pr_debug("Problem processing event, skipping it\n");
859 ret = -1; !! 745 return -1;
860 goto out; <<
861 } 746 }
862 747
863 atom = work_pop_atom(kwork, class, KWO 748 atom = work_pop_atom(kwork, class, KWORK_TRACE_EXIT,
864 KWORK_TRACE_ENTRY 749 KWORK_TRACE_ENTRY, evsel, sample,
865 machine, &work); 750 machine, &work);
866 if (work == NULL) { !! 751 if (work == NULL)
867 ret = -1; !! 752 return -1;
868 goto out; <<
869 } <<
870 753
871 if (atom != NULL) { 754 if (atom != NULL) {
872 work->nr_atoms++; 755 work->nr_atoms++;
873 timehist_print_event(kwork, wo 756 timehist_print_event(kwork, work, atom, sample, &al);
874 atom_del(atom); 757 atom_del(atom);
875 } 758 }
876 759
877 out: <<
878 addr_location__exit(&al); <<
879 return ret; <<
880 } <<
881 <<
882 static void top_update_runtime(struct kwork_wo <<
883 struct kwork_at <<
884 struct perf_sam <<
885 { <<
886 u64 delta; <<
887 u64 exit_time = sample->time; <<
888 u64 entry_time = atom->time; <<
889 <<
890 if ((entry_time != 0) && (exit_time >= <<
891 delta = exit_time - entry_time <<
892 work->total_runtime += delta; <<
893 } <<
894 } <<
895 <<
896 static int top_entry_event(struct perf_kwork * <<
897 struct kwork_class <<
898 struct evsel *evsel <<
899 struct perf_sample <<
900 struct machine *mac <<
901 { <<
902 return work_push_atom(kwork, class, KW <<
903 KWORK_TRACE_MAX, <<
904 machine, NULL, t <<
905 } <<
906 <<
907 static int top_exit_event(struct perf_kwork *k <<
908 struct kwork_class * <<
909 struct evsel *evsel, <<
910 struct perf_sample * <<
911 struct machine *mach <<
912 { <<
913 struct kwork_work *work, *sched_work; <<
914 struct kwork_class *sched_class; <<
915 struct kwork_atom *atom; <<
916 <<
917 atom = work_pop_atom(kwork, class, KWO <<
918 KWORK_TRACE_ENTRY <<
919 machine, &work); <<
920 if (!work) <<
921 return -1; <<
922 <<
923 if (atom) { <<
924 sched_class = get_kwork_class( <<
925 if (sched_class) { <<
926 sched_work = find_work <<
927 <<
928 if (sched_work) <<
929 top_update_run <<
930 } <<
931 atom_del(atom); <<
932 } <<
933 <<
934 return 0; 760 return 0;
935 } 761 }
936 762
937 static int top_sched_switch_event(struct perf_ <<
938 struct kwork <<
939 struct evsel <<
940 struct perf_ <<
941 struct machi <<
942 { <<
943 struct kwork_atom *atom; <<
944 struct kwork_work *work; <<
945 <<
946 atom = work_pop_atom(kwork, class, KWO <<
947 KWORK_TRACE_ENTRY <<
948 machine, &work); <<
949 if (!work) <<
950 return -1; <<
951 <<
952 if (atom) { <<
953 top_update_runtime(work, atom, <<
954 atom_del(atom); <<
955 } <<
956 <<
957 return top_entry_event(kwork, class, e <<
958 } <<
959 <<
960 static struct kwork_class kwork_irq; 763 static struct kwork_class kwork_irq;
961 static int process_irq_handler_entry_event(str 764 static int process_irq_handler_entry_event(struct perf_tool *tool,
962 str 765 struct evsel *evsel,
963 str 766 struct perf_sample *sample,
964 str 767 struct machine *machine)
965 { 768 {
966 struct perf_kwork *kwork = container_o 769 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
967 770
968 if (kwork->tp_handler->entry_event) 771 if (kwork->tp_handler->entry_event)
969 return kwork->tp_handler->entr 772 return kwork->tp_handler->entry_event(kwork, &kwork_irq,
970 773 evsel, sample, machine);
971 return 0; 774 return 0;
972 } 775 }
973 776
974 static int process_irq_handler_exit_event(stru 777 static int process_irq_handler_exit_event(struct perf_tool *tool,
975 stru 778 struct evsel *evsel,
976 stru 779 struct perf_sample *sample,
977 stru 780 struct machine *machine)
978 { 781 {
979 struct perf_kwork *kwork = container_o 782 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
980 783
981 if (kwork->tp_handler->exit_event) 784 if (kwork->tp_handler->exit_event)
982 return kwork->tp_handler->exit 785 return kwork->tp_handler->exit_event(kwork, &kwork_irq,
983 786 evsel, sample, machine);
984 return 0; 787 return 0;
985 } 788 }
986 789
987 const struct evsel_str_handler irq_tp_handlers 790 const struct evsel_str_handler irq_tp_handlers[] = {
988 { "irq:irq_handler_entry", process_irq 791 { "irq:irq_handler_entry", process_irq_handler_entry_event, },
989 { "irq:irq_handler_exit", process_irq 792 { "irq:irq_handler_exit", process_irq_handler_exit_event, },
990 }; 793 };
991 794
992 static int irq_class_init(struct kwork_class * 795 static int irq_class_init(struct kwork_class *class,
993 struct perf_session 796 struct perf_session *session)
994 { 797 {
995 if (perf_session__set_tracepoints_hand 798 if (perf_session__set_tracepoints_handlers(session, irq_tp_handlers)) {
996 pr_err("Failed to set irq trac 799 pr_err("Failed to set irq tracepoints handlers\n");
997 return -1; 800 return -1;
998 } 801 }
999 802
1000 class->work_root = RB_ROOT_CACHED; 803 class->work_root = RB_ROOT_CACHED;
1001 return 0; 804 return 0;
1002 } 805 }
1003 806
1004 static void irq_work_init(struct perf_kwork * !! 807 static void irq_work_init(struct kwork_class *class,
1005 struct kwork_class <<
1006 struct kwork_work * 808 struct kwork_work *work,
1007 enum kwork_trace_ty <<
1008 struct evsel *evsel 809 struct evsel *evsel,
1009 struct perf_sample 810 struct perf_sample *sample,
1010 struct machine *mac 811 struct machine *machine __maybe_unused)
1011 { 812 {
1012 work->class = class; 813 work->class = class;
1013 work->cpu = sample->cpu; 814 work->cpu = sample->cpu;
1014 !! 815 work->id = evsel__intval(evsel, sample, "irq");
1015 if (kwork->report == KWORK_REPORT_TOP !! 816 work->name = evsel__strval(evsel, sample, "name");
1016 work->id = evsel__intval_comm <<
1017 work->name = NULL; <<
1018 } else { <<
1019 work->id = evsel__intval(evse <<
1020 work->name = evsel__strval(ev <<
1021 } <<
1022 } 817 }
1023 818
1024 static void irq_work_name(struct kwork_work * 819 static void irq_work_name(struct kwork_work *work, char *buf, int len)
1025 { 820 {
1026 snprintf(buf, len, "%s:%" PRIu64 "", 821 snprintf(buf, len, "%s:%" PRIu64 "", work->name, work->id);
1027 } 822 }
1028 823
1029 static struct kwork_class kwork_irq = { 824 static struct kwork_class kwork_irq = {
1030 .name = "irq", 825 .name = "irq",
1031 .type = KWORK_CLASS_IRQ, 826 .type = KWORK_CLASS_IRQ,
1032 .nr_tracepoints = 2, 827 .nr_tracepoints = 2,
1033 .tp_handlers = irq_tp_handlers, 828 .tp_handlers = irq_tp_handlers,
1034 .class_init = irq_class_init, 829 .class_init = irq_class_init,
1035 .work_init = irq_work_init, 830 .work_init = irq_work_init,
1036 .work_name = irq_work_name, 831 .work_name = irq_work_name,
1037 }; 832 };
1038 833
1039 static struct kwork_class kwork_softirq; 834 static struct kwork_class kwork_softirq;
1040 static int process_softirq_raise_event(struct 835 static int process_softirq_raise_event(struct perf_tool *tool,
1041 struct 836 struct evsel *evsel,
1042 struct 837 struct perf_sample *sample,
1043 struct 838 struct machine *machine)
1044 { 839 {
1045 struct perf_kwork *kwork = container_ 840 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1046 841
1047 if (kwork->tp_handler->raise_event) 842 if (kwork->tp_handler->raise_event)
1048 return kwork->tp_handler->rai 843 return kwork->tp_handler->raise_event(kwork, &kwork_softirq,
1049 844 evsel, sample, machine);
1050 845
1051 return 0; 846 return 0;
1052 } 847 }
1053 848
1054 static int process_softirq_entry_event(struct 849 static int process_softirq_entry_event(struct perf_tool *tool,
1055 struct 850 struct evsel *evsel,
1056 struct 851 struct perf_sample *sample,
1057 struct 852 struct machine *machine)
1058 { 853 {
1059 struct perf_kwork *kwork = container_ 854 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1060 855
1061 if (kwork->tp_handler->entry_event) 856 if (kwork->tp_handler->entry_event)
1062 return kwork->tp_handler->ent 857 return kwork->tp_handler->entry_event(kwork, &kwork_softirq,
1063 858 evsel, sample, machine);
1064 859
1065 return 0; 860 return 0;
1066 } 861 }
1067 862
1068 static int process_softirq_exit_event(struct 863 static int process_softirq_exit_event(struct perf_tool *tool,
1069 struct 864 struct evsel *evsel,
1070 struct 865 struct perf_sample *sample,
1071 struct 866 struct machine *machine)
1072 { 867 {
1073 struct perf_kwork *kwork = container_ 868 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1074 869
1075 if (kwork->tp_handler->exit_event) 870 if (kwork->tp_handler->exit_event)
1076 return kwork->tp_handler->exi 871 return kwork->tp_handler->exit_event(kwork, &kwork_softirq,
1077 872 evsel, sample, machine);
1078 873
1079 return 0; 874 return 0;
1080 } 875 }
1081 876
1082 const struct evsel_str_handler softirq_tp_han 877 const struct evsel_str_handler softirq_tp_handlers[] = {
1083 { "irq:softirq_raise", process_softir 878 { "irq:softirq_raise", process_softirq_raise_event, },
1084 { "irq:softirq_entry", process_softir 879 { "irq:softirq_entry", process_softirq_entry_event, },
1085 { "irq:softirq_exit", process_softir 880 { "irq:softirq_exit", process_softirq_exit_event, },
1086 }; 881 };
1087 882
1088 static int softirq_class_init(struct kwork_cl 883 static int softirq_class_init(struct kwork_class *class,
1089 struct perf_ses 884 struct perf_session *session)
1090 { 885 {
1091 if (perf_session__set_tracepoints_han 886 if (perf_session__set_tracepoints_handlers(session,
1092 887 softirq_tp_handlers)) {
1093 pr_err("Failed to set softirq 888 pr_err("Failed to set softirq tracepoints handlers\n");
1094 return -1; 889 return -1;
1095 } 890 }
1096 891
1097 class->work_root = RB_ROOT_CACHED; 892 class->work_root = RB_ROOT_CACHED;
1098 return 0; 893 return 0;
1099 } 894 }
1100 895
1101 static char *evsel__softirq_name(struct evsel 896 static char *evsel__softirq_name(struct evsel *evsel, u64 num)
1102 { 897 {
1103 char *name = NULL; 898 char *name = NULL;
1104 bool found = false; 899 bool found = false;
1105 struct tep_print_flag_sym *sym = NULL 900 struct tep_print_flag_sym *sym = NULL;
1106 struct tep_print_arg *args = evsel->t 901 struct tep_print_arg *args = evsel->tp_format->print_fmt.args;
1107 902
1108 if ((args == NULL) || (args->next == 903 if ((args == NULL) || (args->next == NULL))
1109 return NULL; 904 return NULL;
1110 905
1111 /* skip softirq field: "REC->vec" */ 906 /* skip softirq field: "REC->vec" */
1112 for (sym = args->next->symbol.symbols 907 for (sym = args->next->symbol.symbols; sym != NULL; sym = sym->next) {
1113 if ((eval_flag(sym->value) == 908 if ((eval_flag(sym->value) == (unsigned long long)num) &&
1114 (strlen(sym->str) != 0)) 909 (strlen(sym->str) != 0)) {
1115 found = true; 910 found = true;
1116 break; 911 break;
1117 } 912 }
1118 } 913 }
1119 914
1120 if (!found) 915 if (!found)
1121 return NULL; 916 return NULL;
1122 917
1123 name = strdup(sym->str); 918 name = strdup(sym->str);
1124 if (name == NULL) { 919 if (name == NULL) {
1125 pr_err("Failed to copy symbol 920 pr_err("Failed to copy symbol name\n");
1126 return NULL; 921 return NULL;
1127 } 922 }
1128 return name; 923 return name;
1129 } 924 }
1130 925
1131 static void softirq_work_init(struct perf_kwo !! 926 static void softirq_work_init(struct kwork_class *class,
1132 struct kwork_cl <<
1133 struct kwork_wo 927 struct kwork_work *work,
1134 enum kwork_trac <<
1135 struct evsel *e 928 struct evsel *evsel,
1136 struct perf_sam 929 struct perf_sample *sample,
1137 struct machine 930 struct machine *machine __maybe_unused)
1138 { 931 {
1139 u64 num; !! 932 u64 num = evsel__intval(evsel, sample, "vec");
1140 933
>> 934 work->id = num;
1141 work->class = class; 935 work->class = class;
1142 work->cpu = sample->cpu; 936 work->cpu = sample->cpu;
1143 !! 937 work->name = evsel__softirq_name(evsel, num);
1144 if (kwork->report == KWORK_REPORT_TOP <<
1145 work->id = evsel__intval_comm <<
1146 work->name = NULL; <<
1147 } else { <<
1148 num = evsel__intval(evsel, sa <<
1149 work->id = num; <<
1150 work->name = evsel__softirq_n <<
1151 } <<
1152 } 938 }
1153 939
1154 static void softirq_work_name(struct kwork_wo 940 static void softirq_work_name(struct kwork_work *work, char *buf, int len)
1155 { 941 {
1156 snprintf(buf, len, "(s)%s:%" PRIu64 " 942 snprintf(buf, len, "(s)%s:%" PRIu64 "", work->name, work->id);
1157 } 943 }
1158 944
1159 static struct kwork_class kwork_softirq = { 945 static struct kwork_class kwork_softirq = {
1160 .name = "softirq", 946 .name = "softirq",
1161 .type = KWORK_CLASS_SOFTIRQ 947 .type = KWORK_CLASS_SOFTIRQ,
1162 .nr_tracepoints = 3, 948 .nr_tracepoints = 3,
1163 .tp_handlers = softirq_tp_handlers 949 .tp_handlers = softirq_tp_handlers,
1164 .class_init = softirq_class_init, 950 .class_init = softirq_class_init,
1165 .work_init = softirq_work_init, 951 .work_init = softirq_work_init,
1166 .work_name = softirq_work_name, 952 .work_name = softirq_work_name,
1167 }; 953 };
1168 954
1169 static struct kwork_class kwork_workqueue; 955 static struct kwork_class kwork_workqueue;
1170 static int process_workqueue_activate_work_ev 956 static int process_workqueue_activate_work_event(struct perf_tool *tool,
1171 957 struct evsel *evsel,
1172 958 struct perf_sample *sample,
1173 959 struct machine *machine)
1174 { 960 {
1175 struct perf_kwork *kwork = container_ 961 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1176 962
1177 if (kwork->tp_handler->raise_event) 963 if (kwork->tp_handler->raise_event)
1178 return kwork->tp_handler->rai 964 return kwork->tp_handler->raise_event(kwork, &kwork_workqueue,
1179 965 evsel, sample, machine);
1180 966
1181 return 0; 967 return 0;
1182 } 968 }
1183 969
1184 static int process_workqueue_execute_start_ev 970 static int process_workqueue_execute_start_event(struct perf_tool *tool,
1185 971 struct evsel *evsel,
1186 972 struct perf_sample *sample,
1187 973 struct machine *machine)
1188 { 974 {
1189 struct perf_kwork *kwork = container_ 975 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1190 976
1191 if (kwork->tp_handler->entry_event) 977 if (kwork->tp_handler->entry_event)
1192 return kwork->tp_handler->ent 978 return kwork->tp_handler->entry_event(kwork, &kwork_workqueue,
1193 979 evsel, sample, machine);
1194 980
1195 return 0; 981 return 0;
1196 } 982 }
1197 983
1198 static int process_workqueue_execute_end_even 984 static int process_workqueue_execute_end_event(struct perf_tool *tool,
1199 985 struct evsel *evsel,
1200 986 struct perf_sample *sample,
1201 987 struct machine *machine)
1202 { 988 {
1203 struct perf_kwork *kwork = container_ 989 struct perf_kwork *kwork = container_of(tool, struct perf_kwork, tool);
1204 990
1205 if (kwork->tp_handler->exit_event) 991 if (kwork->tp_handler->exit_event)
1206 return kwork->tp_handler->exi 992 return kwork->tp_handler->exit_event(kwork, &kwork_workqueue,
1207 993 evsel, sample, machine);
1208 994
1209 return 0; 995 return 0;
1210 } 996 }
1211 997
1212 const struct evsel_str_handler workqueue_tp_h 998 const struct evsel_str_handler workqueue_tp_handlers[] = {
1213 { "workqueue:workqueue_activate_work" 999 { "workqueue:workqueue_activate_work", process_workqueue_activate_work_event, },
1214 { "workqueue:workqueue_execute_start" 1000 { "workqueue:workqueue_execute_start", process_workqueue_execute_start_event, },
1215 { "workqueue:workqueue_execute_end", 1001 { "workqueue:workqueue_execute_end", process_workqueue_execute_end_event, },
1216 }; 1002 };
1217 1003
1218 static int workqueue_class_init(struct kwork_ 1004 static int workqueue_class_init(struct kwork_class *class,
1219 struct perf_s 1005 struct perf_session *session)
1220 { 1006 {
1221 if (perf_session__set_tracepoints_han 1007 if (perf_session__set_tracepoints_handlers(session,
1222 1008 workqueue_tp_handlers)) {
1223 pr_err("Failed to set workque 1009 pr_err("Failed to set workqueue tracepoints handlers\n");
1224 return -1; 1010 return -1;
1225 } 1011 }
1226 1012
1227 class->work_root = RB_ROOT_CACHED; 1013 class->work_root = RB_ROOT_CACHED;
1228 return 0; 1014 return 0;
1229 } 1015 }
1230 1016
1231 static void workqueue_work_init(struct perf_k !! 1017 static void workqueue_work_init(struct kwork_class *class,
1232 struct kwork_ <<
1233 struct kwork_ 1018 struct kwork_work *work,
1234 enum kwork_tr <<
1235 struct evsel 1019 struct evsel *evsel,
1236 struct perf_s 1020 struct perf_sample *sample,
1237 struct machin 1021 struct machine *machine)
1238 { 1022 {
1239 char *modp = NULL; 1023 char *modp = NULL;
1240 unsigned long long function_addr = ev 1024 unsigned long long function_addr = evsel__intval(evsel,
1241 1025 sample, "function");
1242 1026
1243 work->class = class; 1027 work->class = class;
1244 work->cpu = sample->cpu; 1028 work->cpu = sample->cpu;
1245 work->id = evsel__intval(evsel, sampl 1029 work->id = evsel__intval(evsel, sample, "work");
1246 work->name = function_addr == 0 ? NUL 1030 work->name = function_addr == 0 ? NULL :
1247 machine__resolve_kernel_addr( 1031 machine__resolve_kernel_addr(machine, &function_addr, &modp);
1248 } 1032 }
1249 1033
1250 static void workqueue_work_name(struct kwork_ 1034 static void workqueue_work_name(struct kwork_work *work, char *buf, int len)
1251 { 1035 {
1252 if (work->name != NULL) 1036 if (work->name != NULL)
1253 snprintf(buf, len, "(w)%s", w 1037 snprintf(buf, len, "(w)%s", work->name);
1254 else 1038 else
1255 snprintf(buf, len, "(w)0x%" P 1039 snprintf(buf, len, "(w)0x%" PRIx64, work->id);
1256 } 1040 }
1257 1041
1258 static struct kwork_class kwork_workqueue = { 1042 static struct kwork_class kwork_workqueue = {
1259 .name = "workqueue", 1043 .name = "workqueue",
1260 .type = KWORK_CLASS_WORKQUE 1044 .type = KWORK_CLASS_WORKQUEUE,
1261 .nr_tracepoints = 3, 1045 .nr_tracepoints = 3,
1262 .tp_handlers = workqueue_tp_handle 1046 .tp_handlers = workqueue_tp_handlers,
1263 .class_init = workqueue_class_ini 1047 .class_init = workqueue_class_init,
1264 .work_init = workqueue_work_init 1048 .work_init = workqueue_work_init,
1265 .work_name = workqueue_work_name 1049 .work_name = workqueue_work_name,
1266 }; 1050 };
1267 1051
1268 static struct kwork_class kwork_sched; <<
1269 static int process_sched_switch_event(struct <<
1270 struct <<
1271 struct <<
1272 struct <<
1273 { <<
1274 struct perf_kwork *kwork = container_ <<
1275 <<
1276 if (kwork->tp_handler->sched_switch_e <<
1277 return kwork->tp_handler->sch <<
1278 <<
1279 return 0; <<
1280 } <<
1281 <<
1282 const struct evsel_str_handler sched_tp_handl <<
1283 { "sched:sched_switch", process_sche <<
1284 }; <<
1285 <<
1286 static int sched_class_init(struct kwork_clas <<
1287 struct perf_sessi <<
1288 { <<
1289 if (perf_session__set_tracepoints_han <<
1290 <<
1291 pr_err("Failed to set sched t <<
1292 return -1; <<
1293 } <<
1294 <<
1295 class->work_root = RB_ROOT_CACHED; <<
1296 return 0; <<
1297 } <<
1298 <<
1299 static void sched_work_init(struct perf_kwork <<
1300 struct kwork_clas <<
1301 struct kwork_work <<
1302 enum kwork_trace_ <<
1303 struct evsel *evs <<
1304 struct perf_sampl <<
1305 struct machine *m <<
1306 { <<
1307 work->class = class; <<
1308 work->cpu = sample->cpu; <<
1309 <<
1310 if (src_type == KWORK_TRACE_EXIT) { <<
1311 work->id = evsel__intval(evse <<
1312 work->name = strdup(evsel__st <<
1313 } else if (src_type == KWORK_TRACE_EN <<
1314 work->id = evsel__intval(evse <<
1315 work->name = strdup(evsel__st <<
1316 } <<
1317 } <<
1318 <<
1319 static void sched_work_name(struct kwork_work <<
1320 { <<
1321 snprintf(buf, len, "%s", work->name); <<
1322 } <<
1323 <<
1324 static struct kwork_class kwork_sched = { <<
1325 .name = "sched", <<
1326 .type = KWORK_CLASS_SCHED, <<
1327 .nr_tracepoints = ARRAY_SIZE(sched_tp <<
1328 .tp_handlers = sched_tp_handlers, <<
1329 .class_init = sched_class_init, <<
1330 .work_init = sched_work_init, <<
1331 .work_name = sched_work_name, <<
1332 }; <<
1333 <<
1334 static struct kwork_class *kwork_class_suppor 1052 static struct kwork_class *kwork_class_supported_list[KWORK_CLASS_MAX] = {
1335 [KWORK_CLASS_IRQ] = &kwork_irq, 1053 [KWORK_CLASS_IRQ] = &kwork_irq,
1336 [KWORK_CLASS_SOFTIRQ] = &kwork_soft 1054 [KWORK_CLASS_SOFTIRQ] = &kwork_softirq,
1337 [KWORK_CLASS_WORKQUEUE] = &kwork_work 1055 [KWORK_CLASS_WORKQUEUE] = &kwork_workqueue,
1338 [KWORK_CLASS_SCHED] = &kwork_sche <<
1339 }; 1056 };
1340 1057
1341 static void print_separator(int len) 1058 static void print_separator(int len)
1342 { 1059 {
1343 printf(" %.*s\n", len, graph_dotted_l 1060 printf(" %.*s\n", len, graph_dotted_line);
1344 } 1061 }
1345 1062
1346 static int report_print_work(struct perf_kwor 1063 static int report_print_work(struct perf_kwork *kwork, struct kwork_work *work)
1347 { 1064 {
1348 int ret = 0; 1065 int ret = 0;
1349 char kwork_name[PRINT_KWORK_NAME_WIDT 1066 char kwork_name[PRINT_KWORK_NAME_WIDTH];
1350 char max_runtime_start[32], max_runti 1067 char max_runtime_start[32], max_runtime_end[32];
1351 char max_latency_start[32], max_laten 1068 char max_latency_start[32], max_latency_end[32];
1352 1069
1353 printf(" "); 1070 printf(" ");
1354 1071
1355 /* 1072 /*
1356 * kwork name 1073 * kwork name
1357 */ 1074 */
1358 if (work->class && work->class->work_ 1075 if (work->class && work->class->work_name) {
1359 work->class->work_name(work, 1076 work->class->work_name(work, kwork_name,
1360 PRINT_ 1077 PRINT_KWORK_NAME_WIDTH);
1361 ret += printf(" %-*s |", PRIN 1078 ret += printf(" %-*s |", PRINT_KWORK_NAME_WIDTH, kwork_name);
1362 } else { 1079 } else {
1363 ret += printf(" %-*s |", PRIN 1080 ret += printf(" %-*s |", PRINT_KWORK_NAME_WIDTH, "");
1364 } 1081 }
1365 1082
1366 /* 1083 /*
1367 * cpu 1084 * cpu
1368 */ 1085 */
1369 ret += printf(" %0*d |", PRINT_CPU_WI 1086 ret += printf(" %0*d |", PRINT_CPU_WIDTH, work->cpu);
1370 1087
1371 /* 1088 /*
1372 * total runtime 1089 * total runtime
1373 */ 1090 */
1374 if (kwork->report == KWORK_REPORT_RUN 1091 if (kwork->report == KWORK_REPORT_RUNTIME) {
1375 ret += printf(" %*.*f ms |", 1092 ret += printf(" %*.*f ms |",
1376 PRINT_RUNTIME_W 1093 PRINT_RUNTIME_WIDTH, RPINT_DECIMAL_WIDTH,
1377 (double)work->t 1094 (double)work->total_runtime / NSEC_PER_MSEC);
1378 } else if (kwork->report == KWORK_REP 1095 } else if (kwork->report == KWORK_REPORT_LATENCY) { // avg delay
1379 ret += printf(" %*.*f ms |", 1096 ret += printf(" %*.*f ms |",
1380 PRINT_LATENCY_W 1097 PRINT_LATENCY_WIDTH, RPINT_DECIMAL_WIDTH,
1381 (double)work->t 1098 (double)work->total_latency /
1382 work->nr_atoms 1099 work->nr_atoms / NSEC_PER_MSEC);
1383 } 1100 }
1384 1101
1385 /* 1102 /*
1386 * count 1103 * count
1387 */ 1104 */
1388 ret += printf(" %*" PRIu64 " |", PRIN 1105 ret += printf(" %*" PRIu64 " |", PRINT_COUNT_WIDTH, work->nr_atoms);
1389 1106
1390 /* 1107 /*
1391 * max runtime, max runtime start, ma 1108 * max runtime, max runtime start, max runtime end
1392 */ 1109 */
1393 if (kwork->report == KWORK_REPORT_RUN 1110 if (kwork->report == KWORK_REPORT_RUNTIME) {
1394 timestamp__scnprintf_usec(wor 1111 timestamp__scnprintf_usec(work->max_runtime_start,
1395 max 1112 max_runtime_start,
1396 siz 1113 sizeof(max_runtime_start));
1397 timestamp__scnprintf_usec(wor 1114 timestamp__scnprintf_usec(work->max_runtime_end,
1398 max 1115 max_runtime_end,
1399 siz 1116 sizeof(max_runtime_end));
1400 ret += printf(" %*.*f ms | %* 1117 ret += printf(" %*.*f ms | %*s s | %*s s |",
1401 PRINT_RUNTIME_W 1118 PRINT_RUNTIME_WIDTH, RPINT_DECIMAL_WIDTH,
1402 (double)work->m 1119 (double)work->max_runtime / NSEC_PER_MSEC,
1403 PRINT_TIMESTAMP 1120 PRINT_TIMESTAMP_WIDTH, max_runtime_start,
1404 PRINT_TIMESTAMP 1121 PRINT_TIMESTAMP_WIDTH, max_runtime_end);
1405 } 1122 }
1406 /* 1123 /*
1407 * max delay, max delay start, max de 1124 * max delay, max delay start, max delay end
1408 */ 1125 */
1409 else if (kwork->report == KWORK_REPOR 1126 else if (kwork->report == KWORK_REPORT_LATENCY) {
1410 timestamp__scnprintf_usec(wor 1127 timestamp__scnprintf_usec(work->max_latency_start,
1411 max 1128 max_latency_start,
1412 siz 1129 sizeof(max_latency_start));
1413 timestamp__scnprintf_usec(wor 1130 timestamp__scnprintf_usec(work->max_latency_end,
1414 max 1131 max_latency_end,
1415 siz 1132 sizeof(max_latency_end));
1416 ret += printf(" %*.*f ms | %* 1133 ret += printf(" %*.*f ms | %*s s | %*s s |",
1417 PRINT_LATENCY_W 1134 PRINT_LATENCY_WIDTH, RPINT_DECIMAL_WIDTH,
1418 (double)work->m 1135 (double)work->max_latency / NSEC_PER_MSEC,
1419 PRINT_TIMESTAMP 1136 PRINT_TIMESTAMP_WIDTH, max_latency_start,
1420 PRINT_TIMESTAMP 1137 PRINT_TIMESTAMP_WIDTH, max_latency_end);
1421 } 1138 }
1422 1139
1423 printf("\n"); 1140 printf("\n");
1424 return ret; 1141 return ret;
1425 } 1142 }
1426 1143
1427 static int report_print_header(struct perf_kw 1144 static int report_print_header(struct perf_kwork *kwork)
1428 { 1145 {
1429 int ret; 1146 int ret;
1430 1147
1431 printf("\n "); 1148 printf("\n ");
1432 ret = printf(" %-*s | %-*s |", 1149 ret = printf(" %-*s | %-*s |",
1433 PRINT_KWORK_NAME_WIDTH, 1150 PRINT_KWORK_NAME_WIDTH, "Kwork Name",
1434 PRINT_CPU_WIDTH, "Cpu"); 1151 PRINT_CPU_WIDTH, "Cpu");
1435 1152
1436 if (kwork->report == KWORK_REPORT_RUN 1153 if (kwork->report == KWORK_REPORT_RUNTIME) {
1437 ret += printf(" %-*s |", 1154 ret += printf(" %-*s |",
1438 PRINT_RUNTIME_H 1155 PRINT_RUNTIME_HEADER_WIDTH, "Total Runtime");
1439 } else if (kwork->report == KWORK_REP 1156 } else if (kwork->report == KWORK_REPORT_LATENCY) {
1440 ret += printf(" %-*s |", 1157 ret += printf(" %-*s |",
1441 PRINT_LATENCY_H 1158 PRINT_LATENCY_HEADER_WIDTH, "Avg delay");
1442 } 1159 }
1443 1160
1444 ret += printf(" %-*s |", PRINT_COUNT_ 1161 ret += printf(" %-*s |", PRINT_COUNT_WIDTH, "Count");
1445 1162
1446 if (kwork->report == KWORK_REPORT_RUN 1163 if (kwork->report == KWORK_REPORT_RUNTIME) {
1447 ret += printf(" %-*s | %-*s | 1164 ret += printf(" %-*s | %-*s | %-*s |",
1448 PRINT_RUNTIME_H 1165 PRINT_RUNTIME_HEADER_WIDTH, "Max runtime",
1449 PRINT_TIMESTAMP 1166 PRINT_TIMESTAMP_HEADER_WIDTH, "Max runtime start",
1450 PRINT_TIMESTAMP 1167 PRINT_TIMESTAMP_HEADER_WIDTH, "Max runtime end");
1451 } else if (kwork->report == KWORK_REP 1168 } else if (kwork->report == KWORK_REPORT_LATENCY) {
1452 ret += printf(" %-*s | %-*s | 1169 ret += printf(" %-*s | %-*s | %-*s |",
1453 PRINT_LATENCY_H 1170 PRINT_LATENCY_HEADER_WIDTH, "Max delay",
1454 PRINT_TIMESTAMP 1171 PRINT_TIMESTAMP_HEADER_WIDTH, "Max delay start",
1455 PRINT_TIMESTAMP 1172 PRINT_TIMESTAMP_HEADER_WIDTH, "Max delay end");
1456 } 1173 }
1457 1174
1458 printf("\n"); 1175 printf("\n");
1459 print_separator(ret); 1176 print_separator(ret);
1460 return ret; 1177 return ret;
1461 } 1178 }
1462 1179
1463 static void timehist_print_header(void) 1180 static void timehist_print_header(void)
1464 { 1181 {
1465 /* 1182 /*
1466 * header row 1183 * header row
1467 */ 1184 */
1468 printf(" %-*s %-*s %-*s %-*s %-*s 1185 printf(" %-*s %-*s %-*s %-*s %-*s %-*s\n",
1469 PRINT_TIMESTAMP_WIDTH, "Runtim 1186 PRINT_TIMESTAMP_WIDTH, "Runtime start",
1470 PRINT_TIMESTAMP_WIDTH, "Runtim 1187 PRINT_TIMESTAMP_WIDTH, "Runtime end",
1471 PRINT_TIMEHIST_CPU_WIDTH, "Cpu 1188 PRINT_TIMEHIST_CPU_WIDTH, "Cpu",
1472 PRINT_KWORK_NAME_WIDTH, "Kwork 1189 PRINT_KWORK_NAME_WIDTH, "Kwork name",
1473 PRINT_RUNTIME_WIDTH, "Runtime" 1190 PRINT_RUNTIME_WIDTH, "Runtime",
1474 PRINT_RUNTIME_WIDTH, "Delaytim 1191 PRINT_RUNTIME_WIDTH, "Delaytime");
1475 1192
1476 /* 1193 /*
1477 * units row 1194 * units row
1478 */ 1195 */
1479 printf(" %-*s %-*s %-*s %-*s %-*s 1196 printf(" %-*s %-*s %-*s %-*s %-*s %-*s\n",
1480 PRINT_TIMESTAMP_WIDTH, "", 1197 PRINT_TIMESTAMP_WIDTH, "",
1481 PRINT_TIMESTAMP_WIDTH, "", 1198 PRINT_TIMESTAMP_WIDTH, "",
1482 PRINT_TIMEHIST_CPU_WIDTH, "", 1199 PRINT_TIMEHIST_CPU_WIDTH, "",
1483 PRINT_KWORK_NAME_WIDTH, "(TYPE 1200 PRINT_KWORK_NAME_WIDTH, "(TYPE)NAME:NUM",
1484 PRINT_RUNTIME_WIDTH, "(msec)", 1201 PRINT_RUNTIME_WIDTH, "(msec)",
1485 PRINT_RUNTIME_WIDTH, "(msec)") 1202 PRINT_RUNTIME_WIDTH, "(msec)");
1486 1203
1487 /* 1204 /*
1488 * separator 1205 * separator
1489 */ 1206 */
1490 printf(" %.*s %.*s %.*s %.*s %.*s 1207 printf(" %.*s %.*s %.*s %.*s %.*s %.*s\n",
1491 PRINT_TIMESTAMP_WIDTH, graph_d 1208 PRINT_TIMESTAMP_WIDTH, graph_dotted_line,
1492 PRINT_TIMESTAMP_WIDTH, graph_d 1209 PRINT_TIMESTAMP_WIDTH, graph_dotted_line,
1493 PRINT_TIMEHIST_CPU_WIDTH, grap 1210 PRINT_TIMEHIST_CPU_WIDTH, graph_dotted_line,
1494 PRINT_KWORK_NAME_WIDTH, graph_ 1211 PRINT_KWORK_NAME_WIDTH, graph_dotted_line,
1495 PRINT_RUNTIME_WIDTH, graph_dot 1212 PRINT_RUNTIME_WIDTH, graph_dotted_line,
1496 PRINT_RUNTIME_WIDTH, graph_dot 1213 PRINT_RUNTIME_WIDTH, graph_dotted_line);
1497 } 1214 }
1498 1215
1499 static void print_summary(struct perf_kwork * 1216 static void print_summary(struct perf_kwork *kwork)
1500 { 1217 {
1501 u64 time = kwork->timeend - kwork->ti 1218 u64 time = kwork->timeend - kwork->timestart;
1502 1219
1503 printf(" Total count : %9 1220 printf(" Total count : %9" PRIu64 "\n", kwork->all_count);
1504 printf(" Total runtime (msec) : %9 1221 printf(" Total runtime (msec) : %9.3f (%.3f%% load average)\n",
1505 (double)kwork->all_runtime / N 1222 (double)kwork->all_runtime / NSEC_PER_MSEC,
1506 time == 0 ? 0 : (double)kwork- 1223 time == 0 ? 0 : (double)kwork->all_runtime / time);
1507 printf(" Total time span (msec) : %9 1224 printf(" Total time span (msec) : %9.3f\n",
1508 (double)time / NSEC_PER_MSEC); 1225 (double)time / NSEC_PER_MSEC);
1509 } 1226 }
1510 1227
1511 static unsigned long long nr_list_entry(struc 1228 static unsigned long long nr_list_entry(struct list_head *head)
1512 { 1229 {
1513 struct list_head *pos; 1230 struct list_head *pos;
1514 unsigned long long n = 0; 1231 unsigned long long n = 0;
1515 1232
1516 list_for_each(pos, head) 1233 list_for_each(pos, head)
1517 n++; 1234 n++;
1518 1235
1519 return n; 1236 return n;
1520 } 1237 }
1521 1238
1522 static void print_skipped_events(struct perf_ 1239 static void print_skipped_events(struct perf_kwork *kwork)
1523 { 1240 {
1524 int i; 1241 int i;
1525 const char *const kwork_event_str[] = 1242 const char *const kwork_event_str[] = {
1526 [KWORK_TRACE_RAISE] = "raise" 1243 [KWORK_TRACE_RAISE] = "raise",
1527 [KWORK_TRACE_ENTRY] = "entry" 1244 [KWORK_TRACE_ENTRY] = "entry",
1528 [KWORK_TRACE_EXIT] = "exit", 1245 [KWORK_TRACE_EXIT] = "exit",
1529 }; 1246 };
1530 1247
1531 if ((kwork->nr_skipped_events[KWORK_T 1248 if ((kwork->nr_skipped_events[KWORK_TRACE_MAX] != 0) &&
1532 (kwork->nr_events != 0)) { 1249 (kwork->nr_events != 0)) {
1533 printf(" INFO: %.3f%% skippe 1250 printf(" INFO: %.3f%% skipped events (%" PRIu64 " including ",
1534 (double)kwork->nr_skip 1251 (double)kwork->nr_skipped_events[KWORK_TRACE_MAX] /
1535 (double)kwork->nr_even 1252 (double)kwork->nr_events * 100.0,
1536 kwork->nr_skipped_even 1253 kwork->nr_skipped_events[KWORK_TRACE_MAX]);
1537 1254
1538 for (i = 0; i < KWORK_TRACE_M 1255 for (i = 0; i < KWORK_TRACE_MAX; i++) {
1539 printf("%" PRIu64 " % 1256 printf("%" PRIu64 " %s%s",
1540 kwork->nr_skip 1257 kwork->nr_skipped_events[i],
1541 kwork_event_st 1258 kwork_event_str[i],
1542 (i == KWORK_TR 1259 (i == KWORK_TRACE_MAX - 1) ? ")\n" : ", ");
1543 } 1260 }
1544 } 1261 }
1545 1262
1546 if (verbose > 0) 1263 if (verbose > 0)
1547 printf(" INFO: use %lld atom 1264 printf(" INFO: use %lld atom pages\n",
1548 nr_list_entry(&kwork-> 1265 nr_list_entry(&kwork->atom_page_list));
1549 } 1266 }
1550 1267
1551 static void print_bad_events(struct perf_kwor 1268 static void print_bad_events(struct perf_kwork *kwork)
1552 { 1269 {
1553 if ((kwork->nr_lost_events != 0) && ( 1270 if ((kwork->nr_lost_events != 0) && (kwork->nr_events != 0)) {
1554 printf(" INFO: %.3f%% lost e 1271 printf(" INFO: %.3f%% lost events (%ld out of %ld, in %ld chunks)\n",
1555 (double)kwork->nr_lost 1272 (double)kwork->nr_lost_events /
1556 (double)kwork->nr_even 1273 (double)kwork->nr_events * 100.0,
1557 kwork->nr_lost_events, 1274 kwork->nr_lost_events, kwork->nr_events,
1558 kwork->nr_lost_chunks) 1275 kwork->nr_lost_chunks);
1559 } 1276 }
1560 } 1277 }
1561 1278
1562 const char *graph_load = "||||||||||||||||||| !! 1279 static void work_sort(struct perf_kwork *kwork, struct kwork_class *class)
1563 const char *graph_idle = " <<
1564 static void top_print_per_cpu_load(struct per <<
1565 { <<
1566 int i, load_width; <<
1567 u64 total, load, load_ratio; <<
1568 struct kwork_top_stat *stat = &kwork- <<
1569 <<
1570 for (i = 0; i < MAX_NR_CPUS; i++) { <<
1571 total = stat->cpus_runtime[i] <<
1572 load = stat->cpus_runtime[i]. <<
1573 if (test_bit(i, stat->all_cpu <<
1574 load_ratio = load * 1 <<
1575 load_width = PRINT_CP <<
1576 load_ratio / <<
1577 <<
1578 printf("%%Cpu%-*d[%.* <<
1579 PRINT_CPU_WIDT <<
1580 load_width, gr <<
1581 PRINT_CPU_USAG <<
1582 graph_idle, <<
1583 PRINT_CPU_USAG <<
1584 PRINT_CPU_USAG <<
1585 (double)load_r <<
1586 } <<
1587 } <<
1588 } <<
1589 <<
1590 static void top_print_cpu_usage(struct perf_k <<
1591 { <<
1592 struct kwork_top_stat *stat = &kwork- <<
1593 u64 idle_time = stat->cpus_runtime[MA <<
1594 u64 hardirq_time = stat->cpus_runtime <<
1595 u64 softirq_time = stat->cpus_runtime <<
1596 int cpus_nr = bitmap_weight(stat->all <<
1597 u64 cpus_total_time = stat->cpus_runt <<
1598 <<
1599 printf("Total : %*.*f ms, %d cpus\n" <<
1600 PRINT_RUNTIME_WIDTH, RPINT_DEC <<
1601 (double)cpus_total_time / NSEC <<
1602 cpus_nr); <<
1603 <<
1604 printf("%%Cpu(s): %*.*f%% id, %*.*f%% <<
1605 PRINT_CPU_USAGE_WIDTH, PRINT_C <<
1606 cpus_total_time ? (double)idle <<
1607 <<
1608 PRINT_CPU_USAGE_WIDTH, PRINT_C <<
1609 cpus_total_time ? (double)hard <<
1610 <<
1611 PRINT_CPU_USAGE_WIDTH, PRINT_C <<
1612 cpus_total_time ? (double)soft <<
1613 <<
1614 top_print_per_cpu_load(kwork); <<
1615 } <<
1616 <<
1617 static void top_print_header(struct perf_kwor <<
1618 { <<
1619 int ret; <<
1620 <<
1621 printf("\n "); <<
1622 ret = printf(" %*s %s%*s%s %*s %*s <<
1623 PRINT_PID_WIDTH, "PID", <<
1624 <<
1625 kwork->use_bpf ? " " : " <<
1626 kwork->use_bpf ? PRINT_P <<
1627 kwork->use_bpf ? "SPID" <<
1628 kwork->use_bpf ? " " : " <<
1629 <<
1630 PRINT_CPU_USAGE_WIDTH, " <<
1631 PRINT_RUNTIME_HEADER_WID <<
1632 PRINT_TASK_NAME_WIDTH, " <<
1633 printf("\n "); <<
1634 print_separator(ret); <<
1635 } <<
1636 <<
1637 static int top_print_work(struct perf_kwork * <<
1638 { <<
1639 int ret = 0; <<
1640 <<
1641 printf(" "); <<
1642 <<
1643 /* <<
1644 * pid <<
1645 */ <<
1646 ret += printf(" %*" PRIu64 " ", PRINT <<
1647 <<
1648 /* <<
1649 * tgid <<
1650 */ <<
1651 if (kwork->use_bpf) <<
1652 ret += printf(" %*d ", PRINT_ <<
1653 <<
1654 /* <<
1655 * cpu usage <<
1656 */ <<
1657 ret += printf(" %*.*f ", <<
1658 PRINT_CPU_USAGE_WIDTH, <<
1659 (double)work->cpu_usage <<
1660 <<
1661 /* <<
1662 * total runtime <<
1663 */ <<
1664 ret += printf(" %*.*f ms ", <<
1665 PRINT_RUNTIME_WIDTH + R <<
1666 (double)work->total_run <<
1667 <<
1668 /* <<
1669 * command <<
1670 */ <<
1671 if (kwork->use_bpf) <<
1672 ret += printf(" %s%s%s", <<
1673 work->is_kthrea <<
1674 work->name, <<
1675 work->is_kthrea <<
1676 else <<
1677 ret += printf(" %-*s", PRINT_ <<
1678 <<
1679 printf("\n"); <<
1680 return ret; <<
1681 } <<
1682 <<
1683 static void work_sort(struct perf_kwork *kwor <<
1684 struct kwork_class *cla <<
1685 { 1280 {
1686 struct rb_node *node; 1281 struct rb_node *node;
1687 struct kwork_work *data; 1282 struct kwork_work *data;
>> 1283 struct rb_root_cached *root = &class->work_root;
1688 1284
1689 pr_debug("Sorting %s ...\n", class->n 1285 pr_debug("Sorting %s ...\n", class->name);
1690 for (;;) { 1286 for (;;) {
1691 node = rb_first_cached(root); 1287 node = rb_first_cached(root);
1692 if (!node) 1288 if (!node)
1693 break; 1289 break;
1694 1290
1695 rb_erase_cached(node, root); 1291 rb_erase_cached(node, root);
1696 data = rb_entry(node, struct 1292 data = rb_entry(node, struct kwork_work, node);
1697 work_insert(&kwork->sorted_wo 1293 work_insert(&kwork->sorted_work_root,
1698 data, &kwork-> 1294 data, &kwork->sort_list);
1699 } 1295 }
1700 } 1296 }
1701 1297
1702 static void perf_kwork__sort(struct perf_kwor 1298 static void perf_kwork__sort(struct perf_kwork *kwork)
1703 { 1299 {
1704 struct kwork_class *class; 1300 struct kwork_class *class;
1705 1301
1706 list_for_each_entry(class, &kwork->cl 1302 list_for_each_entry(class, &kwork->class_list, list)
1707 work_sort(kwork, class, &clas !! 1303 work_sort(kwork, class);
1708 } 1304 }
1709 1305
1710 static int perf_kwork__check_config(struct pe 1306 static int perf_kwork__check_config(struct perf_kwork *kwork,
1711 struct pe 1307 struct perf_session *session)
1712 { 1308 {
1713 int ret; 1309 int ret;
1714 struct evsel *evsel; 1310 struct evsel *evsel;
1715 struct kwork_class *class; 1311 struct kwork_class *class;
1716 1312
1717 static struct trace_kwork_handler rep 1313 static struct trace_kwork_handler report_ops = {
1718 .entry_event = report_entry_e 1314 .entry_event = report_entry_event,
1719 .exit_event = report_exit_ev 1315 .exit_event = report_exit_event,
1720 }; 1316 };
1721 static struct trace_kwork_handler lat 1317 static struct trace_kwork_handler latency_ops = {
1722 .raise_event = latency_raise_ 1318 .raise_event = latency_raise_event,
1723 .entry_event = latency_entry_ 1319 .entry_event = latency_entry_event,
1724 }; 1320 };
1725 static struct trace_kwork_handler tim 1321 static struct trace_kwork_handler timehist_ops = {
1726 .raise_event = timehist_raise 1322 .raise_event = timehist_raise_event,
1727 .entry_event = timehist_entry 1323 .entry_event = timehist_entry_event,
1728 .exit_event = timehist_exit_ 1324 .exit_event = timehist_exit_event,
1729 }; 1325 };
1730 static struct trace_kwork_handler top <<
1731 .entry_event = timehis <<
1732 .exit_event = top_exi <<
1733 .sched_switch_event = top_sch <<
1734 }; <<
1735 1326
1736 switch (kwork->report) { 1327 switch (kwork->report) {
1737 case KWORK_REPORT_RUNTIME: 1328 case KWORK_REPORT_RUNTIME:
1738 kwork->tp_handler = &report_o 1329 kwork->tp_handler = &report_ops;
1739 break; 1330 break;
1740 case KWORK_REPORT_LATENCY: 1331 case KWORK_REPORT_LATENCY:
1741 kwork->tp_handler = &latency_ 1332 kwork->tp_handler = &latency_ops;
1742 break; 1333 break;
1743 case KWORK_REPORT_TIMEHIST: 1334 case KWORK_REPORT_TIMEHIST:
1744 kwork->tp_handler = &timehist 1335 kwork->tp_handler = &timehist_ops;
1745 break; 1336 break;
1746 case KWORK_REPORT_TOP: <<
1747 kwork->tp_handler = &top_ops; <<
1748 break; <<
1749 default: 1337 default:
1750 pr_debug("Invalid report type 1338 pr_debug("Invalid report type %d\n", kwork->report);
1751 return -1; 1339 return -1;
1752 } 1340 }
1753 1341
1754 list_for_each_entry(class, &kwork->cl 1342 list_for_each_entry(class, &kwork->class_list, list)
1755 if ((class->class_init != NUL 1343 if ((class->class_init != NULL) &&
1756 (class->class_init(class, 1344 (class->class_init(class, session) != 0))
1757 return -1; 1345 return -1;
1758 1346
1759 if (kwork->cpu_list != NULL) { 1347 if (kwork->cpu_list != NULL) {
1760 ret = perf_session__cpu_bitma 1348 ret = perf_session__cpu_bitmap(session,
1761 1349 kwork->cpu_list,
1762 1350 kwork->cpu_bitmap);
1763 if (ret < 0) { 1351 if (ret < 0) {
1764 pr_err("Invalid cpu b 1352 pr_err("Invalid cpu bitmap\n");
1765 return -1; 1353 return -1;
1766 } 1354 }
1767 } 1355 }
1768 1356
1769 if (kwork->time_str != NULL) { 1357 if (kwork->time_str != NULL) {
1770 ret = perf_time__parse_str(&k 1358 ret = perf_time__parse_str(&kwork->ptime, kwork->time_str);
1771 if (ret != 0) { 1359 if (ret != 0) {
1772 pr_err("Invalid time 1360 pr_err("Invalid time span\n");
1773 return -1; 1361 return -1;
1774 } 1362 }
1775 } 1363 }
1776 1364
1777 list_for_each_entry(evsel, &session-> 1365 list_for_each_entry(evsel, &session->evlist->core.entries, core.node) {
1778 if (kwork->show_callchain && 1366 if (kwork->show_callchain && !evsel__has_callchain(evsel)) {
1779 pr_debug("Samples do 1367 pr_debug("Samples do not have callchains\n");
1780 kwork->show_callchain 1368 kwork->show_callchain = 0;
1781 symbol_conf.use_callc 1369 symbol_conf.use_callchain = 0;
1782 } 1370 }
1783 } 1371 }
1784 1372
1785 return 0; 1373 return 0;
1786 } 1374 }
1787 1375
1788 static int perf_kwork__read_events(struct per 1376 static int perf_kwork__read_events(struct perf_kwork *kwork)
1789 { 1377 {
1790 int ret = -1; 1378 int ret = -1;
1791 struct perf_session *session = NULL; 1379 struct perf_session *session = NULL;
1792 1380
1793 struct perf_data data = { 1381 struct perf_data data = {
1794 .path = input_name, 1382 .path = input_name,
1795 .mode = PERF_DATA_MODE_READ, 1383 .mode = PERF_DATA_MODE_READ,
1796 .force = kwork->force, 1384 .force = kwork->force,
1797 }; 1385 };
1798 1386
1799 session = perf_session__new(&data, &k 1387 session = perf_session__new(&data, &kwork->tool);
1800 if (IS_ERR(session)) { 1388 if (IS_ERR(session)) {
1801 pr_debug("Error creating perf 1389 pr_debug("Error creating perf session\n");
1802 return PTR_ERR(session); 1390 return PTR_ERR(session);
1803 } 1391 }
1804 1392
1805 symbol__init(&session->header.env); 1393 symbol__init(&session->header.env);
1806 1394
1807 if (perf_kwork__check_config(kwork, s 1395 if (perf_kwork__check_config(kwork, session) != 0)
1808 goto out_delete; 1396 goto out_delete;
1809 1397
1810 if (session->tevent.pevent && 1398 if (session->tevent.pevent &&
1811 tep_set_function_resolver(session 1399 tep_set_function_resolver(session->tevent.pevent,
1812 machine 1400 machine__resolve_kernel_addr,
1813 &sessio 1401 &session->machines.host) < 0) {
1814 pr_err("Failed to set libtrac 1402 pr_err("Failed to set libtraceevent function resolver\n");
1815 goto out_delete; 1403 goto out_delete;
1816 } 1404 }
1817 1405
1818 if (kwork->report == KWORK_REPORT_TIM 1406 if (kwork->report == KWORK_REPORT_TIMEHIST)
1819 timehist_print_header(); 1407 timehist_print_header();
1820 1408
1821 ret = perf_session__process_events(se 1409 ret = perf_session__process_events(session);
1822 if (ret) { 1410 if (ret) {
1823 pr_debug("Failed to process e 1411 pr_debug("Failed to process events, error %d\n", ret);
1824 goto out_delete; 1412 goto out_delete;
1825 } 1413 }
1826 1414
1827 kwork->nr_events = session->evli 1415 kwork->nr_events = session->evlist->stats.nr_events[0];
1828 kwork->nr_lost_events = session->evli 1416 kwork->nr_lost_events = session->evlist->stats.total_lost;
1829 kwork->nr_lost_chunks = session->evli 1417 kwork->nr_lost_chunks = session->evlist->stats.nr_events[PERF_RECORD_LOST];
1830 1418
1831 out_delete: 1419 out_delete:
1832 perf_session__delete(session); 1420 perf_session__delete(session);
1833 return ret; 1421 return ret;
1834 } 1422 }
1835 1423
1836 static void process_skipped_events(struct per 1424 static void process_skipped_events(struct perf_kwork *kwork,
1837 struct kwo 1425 struct kwork_work *work)
1838 { 1426 {
1839 int i; 1427 int i;
1840 unsigned long long count; 1428 unsigned long long count;
1841 1429
1842 for (i = 0; i < KWORK_TRACE_MAX; i++) 1430 for (i = 0; i < KWORK_TRACE_MAX; i++) {
1843 count = nr_list_entry(&work-> 1431 count = nr_list_entry(&work->atom_list[i]);
1844 kwork->nr_skipped_events[i] + 1432 kwork->nr_skipped_events[i] += count;
1845 kwork->nr_skipped_events[KWOR 1433 kwork->nr_skipped_events[KWORK_TRACE_MAX] += count;
1846 } 1434 }
1847 } 1435 }
1848 1436
1849 struct kwork_work *perf_kwork_add_work(struct 1437 struct kwork_work *perf_kwork_add_work(struct perf_kwork *kwork,
1850 struct 1438 struct kwork_class *class,
1851 struct 1439 struct kwork_work *key)
1852 { 1440 {
1853 struct kwork_work *work = NULL; 1441 struct kwork_work *work = NULL;
1854 1442
1855 work = work_new(key); 1443 work = work_new(key);
1856 if (work == NULL) 1444 if (work == NULL)
1857 return NULL; 1445 return NULL;
1858 1446
1859 work_insert(&class->work_root, work, 1447 work_insert(&class->work_root, work, &kwork->cmp_id);
1860 return work; 1448 return work;
1861 } 1449 }
1862 1450
1863 static void sig_handler(int sig) 1451 static void sig_handler(int sig)
1864 { 1452 {
1865 /* 1453 /*
1866 * Simply capture termination signal 1454 * Simply capture termination signal so that
1867 * the program can continue after pau 1455 * the program can continue after pause returns
1868 */ 1456 */
1869 pr_debug("Capture signal %d\n", sig); !! 1457 pr_debug("Captuer signal %d\n", sig);
1870 } 1458 }
1871 1459
1872 static int perf_kwork__report_bpf(struct perf 1460 static int perf_kwork__report_bpf(struct perf_kwork *kwork)
1873 { 1461 {
1874 int ret; 1462 int ret;
1875 1463
1876 signal(SIGINT, sig_handler); 1464 signal(SIGINT, sig_handler);
1877 signal(SIGTERM, sig_handler); 1465 signal(SIGTERM, sig_handler);
1878 1466
1879 ret = perf_kwork__trace_prepare_bpf(k 1467 ret = perf_kwork__trace_prepare_bpf(kwork);
1880 if (ret) 1468 if (ret)
1881 return -1; 1469 return -1;
1882 1470
1883 printf("Starting trace, Hit <Ctrl+C> 1471 printf("Starting trace, Hit <Ctrl+C> to stop and report\n");
1884 1472
1885 perf_kwork__trace_start(); 1473 perf_kwork__trace_start();
1886 1474
1887 /* 1475 /*
1888 * a simple pause, wait here for stop 1476 * a simple pause, wait here for stop signal
1889 */ 1477 */
1890 pause(); 1478 pause();
1891 1479
1892 perf_kwork__trace_finish(); 1480 perf_kwork__trace_finish();
1893 1481
1894 perf_kwork__report_read_bpf(kwork); 1482 perf_kwork__report_read_bpf(kwork);
1895 1483
1896 perf_kwork__report_cleanup_bpf(); 1484 perf_kwork__report_cleanup_bpf();
1897 1485
1898 return 0; 1486 return 0;
1899 } 1487 }
1900 1488
1901 static int perf_kwork__report(struct perf_kwo 1489 static int perf_kwork__report(struct perf_kwork *kwork)
1902 { 1490 {
1903 int ret; 1491 int ret;
1904 struct rb_node *next; 1492 struct rb_node *next;
1905 struct kwork_work *work; 1493 struct kwork_work *work;
1906 1494
1907 if (kwork->use_bpf) 1495 if (kwork->use_bpf)
1908 ret = perf_kwork__report_bpf( 1496 ret = perf_kwork__report_bpf(kwork);
1909 else 1497 else
1910 ret = perf_kwork__read_events 1498 ret = perf_kwork__read_events(kwork);
1911 1499
1912 if (ret != 0) 1500 if (ret != 0)
1913 return -1; 1501 return -1;
1914 1502
1915 perf_kwork__sort(kwork); 1503 perf_kwork__sort(kwork);
1916 1504
1917 setup_pager(); 1505 setup_pager();
1918 1506
1919 ret = report_print_header(kwork); 1507 ret = report_print_header(kwork);
1920 next = rb_first_cached(&kwork->sorted 1508 next = rb_first_cached(&kwork->sorted_work_root);
1921 while (next) { 1509 while (next) {
1922 work = rb_entry(next, struct 1510 work = rb_entry(next, struct kwork_work, node);
1923 process_skipped_events(kwork, 1511 process_skipped_events(kwork, work);
1924 1512
1925 if (work->nr_atoms != 0) { 1513 if (work->nr_atoms != 0) {
1926 report_print_work(kwo 1514 report_print_work(kwork, work);
1927 if (kwork->summary) { 1515 if (kwork->summary) {
1928 kwork->all_ru 1516 kwork->all_runtime += work->total_runtime;
1929 kwork->all_co 1517 kwork->all_count += work->nr_atoms;
1930 } 1518 }
1931 } 1519 }
1932 next = rb_next(next); 1520 next = rb_next(next);
1933 } 1521 }
1934 print_separator(ret); 1522 print_separator(ret);
1935 1523
1936 if (kwork->summary) { 1524 if (kwork->summary) {
1937 print_summary(kwork); 1525 print_summary(kwork);
1938 print_separator(ret); 1526 print_separator(ret);
1939 } 1527 }
1940 1528
1941 print_bad_events(kwork); 1529 print_bad_events(kwork);
1942 print_skipped_events(kwork); 1530 print_skipped_events(kwork);
1943 printf("\n"); 1531 printf("\n");
1944 1532
1945 return 0; 1533 return 0;
1946 } 1534 }
1947 1535
1948 typedef int (*tracepoint_handler)(struct perf 1536 typedef int (*tracepoint_handler)(struct perf_tool *tool,
1949 struct evse 1537 struct evsel *evsel,
1950 struct perf 1538 struct perf_sample *sample,
1951 struct mach 1539 struct machine *machine);
1952 1540
1953 static int perf_kwork__process_tracepoint_sam 1541 static int perf_kwork__process_tracepoint_sample(struct perf_tool *tool,
1954 1542 union perf_event *event __maybe_unused,
1955 1543 struct perf_sample *sample,
1956 1544 struct evsel *evsel,
1957 1545 struct machine *machine)
1958 { 1546 {
1959 int err = 0; 1547 int err = 0;
1960 1548
1961 if (evsel->handler != NULL) { 1549 if (evsel->handler != NULL) {
1962 tracepoint_handler f = evsel- 1550 tracepoint_handler f = evsel->handler;
1963 1551
1964 err = f(tool, evsel, sample, 1552 err = f(tool, evsel, sample, machine);
1965 } 1553 }
1966 1554
1967 return err; 1555 return err;
1968 } 1556 }
1969 1557
1970 static int perf_kwork__timehist(struct perf_k 1558 static int perf_kwork__timehist(struct perf_kwork *kwork)
1971 { 1559 {
1972 /* 1560 /*
1973 * event handlers for timehist option 1561 * event handlers for timehist option
1974 */ 1562 */
1975 kwork->tool.comm = perf_event 1563 kwork->tool.comm = perf_event__process_comm;
1976 kwork->tool.exit = perf_event 1564 kwork->tool.exit = perf_event__process_exit;
1977 kwork->tool.fork = perf_event 1565 kwork->tool.fork = perf_event__process_fork;
1978 kwork->tool.attr = perf_event 1566 kwork->tool.attr = perf_event__process_attr;
1979 kwork->tool.tracing_data = perf_event 1567 kwork->tool.tracing_data = perf_event__process_tracing_data;
1980 kwork->tool.build_id = perf_event 1568 kwork->tool.build_id = perf_event__process_build_id;
1981 kwork->tool.ordered_events = true; 1569 kwork->tool.ordered_events = true;
1982 kwork->tool.ordering_requires_timesta 1570 kwork->tool.ordering_requires_timestamps = true;
1983 symbol_conf.use_callchain = kwork->sh 1571 symbol_conf.use_callchain = kwork->show_callchain;
1984 1572
1985 if (symbol__validate_sym_arguments()) 1573 if (symbol__validate_sym_arguments()) {
1986 pr_err("Failed to validate sy 1574 pr_err("Failed to validate sym arguments\n");
1987 return -1; 1575 return -1;
1988 } 1576 }
1989 1577
1990 setup_pager(); 1578 setup_pager();
1991 1579
1992 return perf_kwork__read_events(kwork) 1580 return perf_kwork__read_events(kwork);
1993 } 1581 }
1994 1582
1995 static void top_calc_total_runtime(struct per <<
1996 { <<
1997 struct kwork_class *class; <<
1998 struct kwork_work *work; <<
1999 struct rb_node *next; <<
2000 struct kwork_top_stat *stat = &kwork- <<
2001 <<
2002 class = get_kwork_class(kwork, KWORK_ <<
2003 if (!class) <<
2004 return; <<
2005 <<
2006 next = rb_first_cached(&class->work_r <<
2007 while (next) { <<
2008 work = rb_entry(next, struct <<
2009 BUG_ON(work->cpu >= MAX_NR_CP <<
2010 stat->cpus_runtime[work->cpu] <<
2011 stat->cpus_runtime[MAX_NR_CPU <<
2012 next = rb_next(next); <<
2013 } <<
2014 } <<
2015 <<
2016 static void top_calc_idle_time(struct perf_kw <<
2017 struct kwork_ <<
2018 { <<
2019 struct kwork_top_stat *stat = &kwork- <<
2020 <<
2021 if (work->id == 0) { <<
2022 stat->cpus_runtime[work->cpu] <<
2023 stat->cpus_runtime[MAX_NR_CPU <<
2024 } <<
2025 } <<
2026 <<
2027 static void top_calc_irq_runtime(struct perf_ <<
2028 enum kwork_c <<
2029 struct kwork <<
2030 { <<
2031 struct kwork_top_stat *stat = &kwork- <<
2032 <<
2033 if (type == KWORK_CLASS_IRQ) { <<
2034 stat->cpus_runtime[work->cpu] <<
2035 stat->cpus_runtime[MAX_NR_CPU <<
2036 } else if (type == KWORK_CLASS_SOFTIR <<
2037 stat->cpus_runtime[work->cpu] <<
2038 stat->cpus_runtime[MAX_NR_CPU <<
2039 } <<
2040 } <<
2041 <<
2042 static void top_subtract_irq_runtime(struct p <<
2043 struct k <<
2044 { <<
2045 struct kwork_class *class; <<
2046 struct kwork_work *data; <<
2047 unsigned int i; <<
2048 int irq_class_list[] = {KWORK_CLASS_I <<
2049 <<
2050 for (i = 0; i < ARRAY_SIZE(irq_class_ <<
2051 class = get_kwork_class(kwork <<
2052 if (!class) <<
2053 continue; <<
2054 <<
2055 data = find_work_by_id(&class <<
2056 work-> <<
2057 if (!data) <<
2058 continue; <<
2059 <<
2060 if (work->total_runtime > dat <<
2061 work->total_runtime - <<
2062 top_calc_irq_runtime( <<
2063 } <<
2064 } <<
2065 } <<
2066 <<
2067 static void top_calc_cpu_usage(struct perf_kw <<
2068 { <<
2069 struct kwork_class *class; <<
2070 struct kwork_work *work; <<
2071 struct rb_node *next; <<
2072 struct kwork_top_stat *stat = &kwork- <<
2073 <<
2074 class = get_kwork_class(kwork, KWORK_ <<
2075 if (!class) <<
2076 return; <<
2077 <<
2078 next = rb_first_cached(&class->work_r <<
2079 while (next) { <<
2080 work = rb_entry(next, struct <<
2081 <<
2082 if (work->total_runtime == 0) <<
2083 goto next; <<
2084 <<
2085 __set_bit(work->cpu, stat->al <<
2086 <<
2087 top_subtract_irq_runtime(kwor <<
2088 <<
2089 work->cpu_usage = work->total <<
2090 stat->cpus_runtime[wo <<
2091 <<
2092 top_calc_idle_time(kwork, wor <<
2093 next: <<
2094 next = rb_next(next); <<
2095 } <<
2096 } <<
2097 <<
2098 static void top_calc_load_runtime(struct perf <<
2099 struct kwor <<
2100 { <<
2101 struct kwork_top_stat *stat = &kwork- <<
2102 <<
2103 if (work->id != 0) { <<
2104 stat->cpus_runtime[work->cpu] <<
2105 stat->cpus_runtime[MAX_NR_CPU <<
2106 } <<
2107 } <<
2108 <<
2109 static void top_merge_tasks(struct perf_kwork <<
2110 { <<
2111 struct kwork_work *merged_work, *data <<
2112 struct kwork_class *class; <<
2113 struct rb_node *node; <<
2114 int cpu; <<
2115 struct rb_root_cached merged_root = R <<
2116 <<
2117 class = get_kwork_class(kwork, KWORK_ <<
2118 if (!class) <<
2119 return; <<
2120 <<
2121 for (;;) { <<
2122 node = rb_first_cached(&class <<
2123 if (!node) <<
2124 break; <<
2125 <<
2126 rb_erase_cached(node, &class- <<
2127 data = rb_entry(node, struct <<
2128 <<
2129 if (!profile_name_match(kwork <<
2130 continue; <<
2131 <<
2132 cpu = data->cpu; <<
2133 merged_work = find_work_by_id <<
2134 <<
2135 if (!merged_work) { <<
2136 work_insert(&merged_r <<
2137 } else { <<
2138 merged_work->total_ru <<
2139 merged_work->cpu_usag <<
2140 } <<
2141 <<
2142 top_calc_load_runtime(kwork, <<
2143 } <<
2144 <<
2145 work_sort(kwork, class, &merged_root) <<
2146 } <<
2147 <<
2148 static void perf_kwork__top_report(struct per <<
2149 { <<
2150 struct kwork_work *work; <<
2151 struct rb_node *next; <<
2152 <<
2153 printf("\n"); <<
2154 <<
2155 top_print_cpu_usage(kwork); <<
2156 top_print_header(kwork); <<
2157 next = rb_first_cached(&kwork->sorted <<
2158 while (next) { <<
2159 work = rb_entry(next, struct <<
2160 process_skipped_events(kwork, <<
2161 <<
2162 if (work->total_runtime == 0) <<
2163 goto next; <<
2164 <<
2165 top_print_work(kwork, work); <<
2166 <<
2167 next: <<
2168 next = rb_next(next); <<
2169 } <<
2170 <<
2171 printf("\n"); <<
2172 } <<
2173 <<
2174 static int perf_kwork__top_bpf(struct perf_kw <<
2175 { <<
2176 int ret; <<
2177 <<
2178 signal(SIGINT, sig_handler); <<
2179 signal(SIGTERM, sig_handler); <<
2180 <<
2181 ret = perf_kwork__top_prepare_bpf(kwo <<
2182 if (ret) <<
2183 return -1; <<
2184 <<
2185 printf("Starting trace, Hit <Ctrl+C> <<
2186 <<
2187 perf_kwork__top_start(); <<
2188 <<
2189 /* <<
2190 * a simple pause, wait here for stop <<
2191 */ <<
2192 pause(); <<
2193 <<
2194 perf_kwork__top_finish(); <<
2195 <<
2196 perf_kwork__top_read_bpf(kwork); <<
2197 <<
2198 perf_kwork__top_cleanup_bpf(); <<
2199 <<
2200 return 0; <<
2201 <<
2202 } <<
2203 <<
2204 static int perf_kwork__top(struct perf_kwork <<
2205 { <<
2206 struct __top_cpus_runtime *cpus_runti <<
2207 int ret = 0; <<
2208 <<
2209 cpus_runtime = zalloc(sizeof(struct _ <<
2210 if (!cpus_runtime) <<
2211 return -1; <<
2212 <<
2213 kwork->top_stat.cpus_runtime = cpus_r <<
2214 bitmap_zero(kwork->top_stat.all_cpus_ <<
2215 <<
2216 if (kwork->use_bpf) <<
2217 ret = perf_kwork__top_bpf(kwo <<
2218 else <<
2219 ret = perf_kwork__read_events <<
2220 <<
2221 if (ret) <<
2222 goto out; <<
2223 <<
2224 top_calc_total_runtime(kwork); <<
2225 top_calc_cpu_usage(kwork); <<
2226 top_merge_tasks(kwork); <<
2227 <<
2228 setup_pager(); <<
2229 <<
2230 perf_kwork__top_report(kwork); <<
2231 <<
2232 out: <<
2233 zfree(&kwork->top_stat.cpus_runtime); <<
2234 return ret; <<
2235 } <<
2236 <<
2237 static void setup_event_list(struct perf_kwor 1583 static void setup_event_list(struct perf_kwork *kwork,
2238 const struct opt 1584 const struct option *options,
2239 const char * con 1585 const char * const usage_msg[])
2240 { 1586 {
2241 int i; 1587 int i;
2242 struct kwork_class *class; 1588 struct kwork_class *class;
2243 char *tmp, *tok, *str; 1589 char *tmp, *tok, *str;
2244 1590
2245 /* <<
2246 * set default events list if not spe <<
2247 */ <<
2248 if (kwork->event_list_str == NULL) 1591 if (kwork->event_list_str == NULL)
2249 kwork->event_list_str = "irq, !! 1592 goto null_event_list_str;
2250 1593
2251 str = strdup(kwork->event_list_str); 1594 str = strdup(kwork->event_list_str);
2252 for (tok = strtok_r(str, ", ", &tmp); 1595 for (tok = strtok_r(str, ", ", &tmp);
2253 tok; tok = strtok_r(NULL, ", ", 1596 tok; tok = strtok_r(NULL, ", ", &tmp)) {
2254 for (i = 0; i < KWORK_CLASS_M 1597 for (i = 0; i < KWORK_CLASS_MAX; i++) {
2255 class = kwork_class_s 1598 class = kwork_class_supported_list[i];
2256 if (strcmp(tok, class 1599 if (strcmp(tok, class->name) == 0) {
2257 list_add_tail 1600 list_add_tail(&class->list, &kwork->class_list);
2258 break; 1601 break;
2259 } 1602 }
2260 } 1603 }
2261 if (i == KWORK_CLASS_MAX) { 1604 if (i == KWORK_CLASS_MAX) {
2262 usage_with_options_ms 1605 usage_with_options_msg(usage_msg, options,
2263 1606 "Unknown --event key: `%s'", tok);
2264 } 1607 }
2265 } 1608 }
2266 free(str); 1609 free(str);
2267 1610
>> 1611 null_event_list_str:
>> 1612 /*
>> 1613 * config all kwork events if not specified
>> 1614 */
>> 1615 if (list_empty(&kwork->class_list)) {
>> 1616 for (i = 0; i < KWORK_CLASS_MAX; i++) {
>> 1617 list_add_tail(&kwork_class_supported_list[i]->list,
>> 1618 &kwork->class_list);
>> 1619 }
>> 1620 }
>> 1621
2268 pr_debug("Config event list:"); 1622 pr_debug("Config event list:");
2269 list_for_each_entry(class, &kwork->cl 1623 list_for_each_entry(class, &kwork->class_list, list)
2270 pr_debug(" %s", class->name); 1624 pr_debug(" %s", class->name);
2271 pr_debug("\n"); 1625 pr_debug("\n");
2272 } 1626 }
2273 1627
2274 static int perf_kwork__record(struct perf_kwo 1628 static int perf_kwork__record(struct perf_kwork *kwork,
2275 int argc, const 1629 int argc, const char **argv)
2276 { 1630 {
2277 const char **rec_argv; 1631 const char **rec_argv;
2278 unsigned int rec_argc, i, j; 1632 unsigned int rec_argc, i, j;
2279 struct kwork_class *class; 1633 struct kwork_class *class;
2280 1634
2281 const char *const record_args[] = { 1635 const char *const record_args[] = {
2282 "record", 1636 "record",
2283 "-a", 1637 "-a",
2284 "-R", 1638 "-R",
2285 "-m", "1024", 1639 "-m", "1024",
2286 "-c", "1", 1640 "-c", "1",
2287 }; 1641 };
2288 1642
2289 rec_argc = ARRAY_SIZE(record_args) + 1643 rec_argc = ARRAY_SIZE(record_args) + argc - 1;
2290 1644
2291 list_for_each_entry(class, &kwork->cl 1645 list_for_each_entry(class, &kwork->class_list, list)
2292 rec_argc += 2 * class->nr_tra 1646 rec_argc += 2 * class->nr_tracepoints;
2293 1647
2294 rec_argv = calloc(rec_argc + 1, sizeo 1648 rec_argv = calloc(rec_argc + 1, sizeof(char *));
2295 if (rec_argv == NULL) 1649 if (rec_argv == NULL)
2296 return -ENOMEM; 1650 return -ENOMEM;
2297 1651
2298 for (i = 0; i < ARRAY_SIZE(record_arg 1652 for (i = 0; i < ARRAY_SIZE(record_args); i++)
2299 rec_argv[i] = strdup(record_a 1653 rec_argv[i] = strdup(record_args[i]);
2300 1654
2301 list_for_each_entry(class, &kwork->cl 1655 list_for_each_entry(class, &kwork->class_list, list) {
2302 for (j = 0; j < class->nr_tra 1656 for (j = 0; j < class->nr_tracepoints; j++) {
2303 rec_argv[i++] = strdu 1657 rec_argv[i++] = strdup("-e");
2304 rec_argv[i++] = strdu 1658 rec_argv[i++] = strdup(class->tp_handlers[j].name);
2305 } 1659 }
2306 } 1660 }
2307 1661
2308 for (j = 1; j < (unsigned int)argc; j 1662 for (j = 1; j < (unsigned int)argc; j++, i++)
2309 rec_argv[i] = argv[j]; 1663 rec_argv[i] = argv[j];
2310 1664
2311 BUG_ON(i != rec_argc); 1665 BUG_ON(i != rec_argc);
2312 1666
2313 pr_debug("record comm: "); 1667 pr_debug("record comm: ");
2314 for (j = 0; j < rec_argc; j++) 1668 for (j = 0; j < rec_argc; j++)
2315 pr_debug("%s ", rec_argv[j]); 1669 pr_debug("%s ", rec_argv[j]);
2316 pr_debug("\n"); 1670 pr_debug("\n");
2317 1671
2318 return cmd_record(i, rec_argv); 1672 return cmd_record(i, rec_argv);
2319 } 1673 }
2320 1674
2321 int cmd_kwork(int argc, const char **argv) 1675 int cmd_kwork(int argc, const char **argv)
2322 { 1676 {
2323 static struct perf_kwork kwork = { 1677 static struct perf_kwork kwork = {
2324 .class_list = LIST_H 1678 .class_list = LIST_HEAD_INIT(kwork.class_list),
2325 .tool = { 1679 .tool = {
2326 .mmap = per !! 1680 .mmap = perf_event__process_mmap,
2327 .mmap2 = per !! 1681 .mmap2 = perf_event__process_mmap2,
2328 .sample = per !! 1682 .sample = perf_kwork__process_tracepoint_sample,
2329 .ordered_events = tru <<
2330 }, 1683 },
2331 .atom_page_list = LIST_H 1684 .atom_page_list = LIST_HEAD_INIT(kwork.atom_page_list),
2332 .sort_list = LIST_H 1685 .sort_list = LIST_HEAD_INIT(kwork.sort_list),
2333 .cmp_id = LIST_H 1686 .cmp_id = LIST_HEAD_INIT(kwork.cmp_id),
2334 .sorted_work_root = RB_ROO 1687 .sorted_work_root = RB_ROOT_CACHED,
2335 .tp_handler = NULL, 1688 .tp_handler = NULL,
2336 .profile_name = NULL, 1689 .profile_name = NULL,
2337 .cpu_list = NULL, 1690 .cpu_list = NULL,
2338 .time_str = NULL, 1691 .time_str = NULL,
2339 .force = false, 1692 .force = false,
2340 .event_list_str = NULL, 1693 .event_list_str = NULL,
2341 .summary = false, 1694 .summary = false,
2342 .sort_order = NULL, 1695 .sort_order = NULL,
2343 .show_callchain = false, 1696 .show_callchain = false,
2344 .max_stack = 5, 1697 .max_stack = 5,
2345 .timestart = 0, 1698 .timestart = 0,
2346 .timeend = 0, 1699 .timeend = 0,
2347 .nr_events = 0, 1700 .nr_events = 0,
2348 .nr_lost_chunks = 0, 1701 .nr_lost_chunks = 0,
2349 .nr_lost_events = 0, 1702 .nr_lost_events = 0,
2350 .all_runtime = 0, 1703 .all_runtime = 0,
2351 .all_count = 0, 1704 .all_count = 0,
2352 .nr_skipped_events = { 0 }, 1705 .nr_skipped_events = { 0 },
2353 }; 1706 };
2354 static const char default_report_sort 1707 static const char default_report_sort_order[] = "runtime, max, count";
2355 static const char default_latency_sor 1708 static const char default_latency_sort_order[] = "avg, max, count";
2356 static const char default_top_sort_or <<
2357 const struct option kwork_options[] = 1709 const struct option kwork_options[] = {
2358 OPT_INCR('v', "verbose", &verbose, 1710 OPT_INCR('v', "verbose", &verbose,
2359 "be more verbose (show symbo 1711 "be more verbose (show symbol address, etc)"),
2360 OPT_BOOLEAN('D', "dump-raw-trace", &d 1712 OPT_BOOLEAN('D', "dump-raw-trace", &dump_trace,
2361 "dump raw trace in ASCII" 1713 "dump raw trace in ASCII"),
2362 OPT_STRING('k', "kwork", &kwork.event 1714 OPT_STRING('k', "kwork", &kwork.event_list_str, "kwork",
2363 "list of kwork to profile !! 1715 "list of kwork to profile (irq, softirq, workqueue, etc)"),
2364 OPT_BOOLEAN('f', "force", &kwork.forc 1716 OPT_BOOLEAN('f', "force", &kwork.force, "don't complain, do it"),
2365 OPT_END() 1717 OPT_END()
2366 }; 1718 };
2367 const struct option report_options[] 1719 const struct option report_options[] = {
2368 OPT_STRING('s', "sort", &kwork.sort_o 1720 OPT_STRING('s', "sort", &kwork.sort_order, "key[,key2...]",
2369 "sort by key(s): runtime, 1721 "sort by key(s): runtime, max, count"),
2370 OPT_STRING('C', "cpu", &kwork.cpu_lis 1722 OPT_STRING('C', "cpu", &kwork.cpu_list, "cpu",
2371 "list of cpus to profile") 1723 "list of cpus to profile"),
2372 OPT_STRING('n', "name", &kwork.profil 1724 OPT_STRING('n', "name", &kwork.profile_name, "name",
2373 "event name to profile"), 1725 "event name to profile"),
2374 OPT_STRING(0, "time", &kwork.time_str 1726 OPT_STRING(0, "time", &kwork.time_str, "str",
2375 "Time span for analysis (s 1727 "Time span for analysis (start,stop)"),
2376 OPT_STRING('i', "input", &input_name, 1728 OPT_STRING('i', "input", &input_name, "file",
2377 "input file name"), 1729 "input file name"),
2378 OPT_BOOLEAN('S', "with-summary", &kwo 1730 OPT_BOOLEAN('S', "with-summary", &kwork.summary,
2379 "Show summary with statis 1731 "Show summary with statistics"),
2380 #ifdef HAVE_BPF_SKEL 1732 #ifdef HAVE_BPF_SKEL
2381 OPT_BOOLEAN('b', "use-bpf", &kwork.us 1733 OPT_BOOLEAN('b', "use-bpf", &kwork.use_bpf,
2382 "Use BPF to measure kwork 1734 "Use BPF to measure kwork runtime"),
2383 #endif 1735 #endif
2384 OPT_PARENT(kwork_options) 1736 OPT_PARENT(kwork_options)
2385 }; 1737 };
2386 const struct option latency_options[] 1738 const struct option latency_options[] = {
2387 OPT_STRING('s', "sort", &kwork.sort_o 1739 OPT_STRING('s', "sort", &kwork.sort_order, "key[,key2...]",
2388 "sort by key(s): avg, max, 1740 "sort by key(s): avg, max, count"),
2389 OPT_STRING('C', "cpu", &kwork.cpu_lis 1741 OPT_STRING('C', "cpu", &kwork.cpu_list, "cpu",
2390 "list of cpus to profile") 1742 "list of cpus to profile"),
2391 OPT_STRING('n', "name", &kwork.profil 1743 OPT_STRING('n', "name", &kwork.profile_name, "name",
2392 "event name to profile"), 1744 "event name to profile"),
2393 OPT_STRING(0, "time", &kwork.time_str 1745 OPT_STRING(0, "time", &kwork.time_str, "str",
2394 "Time span for analysis (s 1746 "Time span for analysis (start,stop)"),
2395 OPT_STRING('i', "input", &input_name, 1747 OPT_STRING('i', "input", &input_name, "file",
2396 "input file name"), 1748 "input file name"),
2397 #ifdef HAVE_BPF_SKEL 1749 #ifdef HAVE_BPF_SKEL
2398 OPT_BOOLEAN('b', "use-bpf", &kwork.us 1750 OPT_BOOLEAN('b', "use-bpf", &kwork.use_bpf,
2399 "Use BPF to measure kwork 1751 "Use BPF to measure kwork latency"),
2400 #endif 1752 #endif
2401 OPT_PARENT(kwork_options) 1753 OPT_PARENT(kwork_options)
2402 }; 1754 };
2403 const struct option timehist_options[ 1755 const struct option timehist_options[] = {
2404 OPT_STRING('k', "vmlinux", &symbol_co 1756 OPT_STRING('k', "vmlinux", &symbol_conf.vmlinux_name,
2405 "file", "vmlinux pathname" 1757 "file", "vmlinux pathname"),
2406 OPT_STRING(0, "kallsyms", &symbol_con 1758 OPT_STRING(0, "kallsyms", &symbol_conf.kallsyms_name,
2407 "file", "kallsyms pathname 1759 "file", "kallsyms pathname"),
2408 OPT_BOOLEAN('g', "call-graph", &kwork 1760 OPT_BOOLEAN('g', "call-graph", &kwork.show_callchain,
2409 "Display call chains if p 1761 "Display call chains if present"),
2410 OPT_UINTEGER(0, "max-stack", &kwork.m 1762 OPT_UINTEGER(0, "max-stack", &kwork.max_stack,
2411 "Maximum number of functio 1763 "Maximum number of functions to display backtrace."),
2412 OPT_STRING(0, "symfs", &symbol_conf.s 1764 OPT_STRING(0, "symfs", &symbol_conf.symfs, "directory",
2413 "Look for files with symb 1765 "Look for files with symbols relative to this directory"),
2414 OPT_STRING(0, "time", &kwork.time_str 1766 OPT_STRING(0, "time", &kwork.time_str, "str",
2415 "Time span for analysis (s 1767 "Time span for analysis (start,stop)"),
2416 OPT_STRING('C', "cpu", &kwork.cpu_lis 1768 OPT_STRING('C', "cpu", &kwork.cpu_list, "cpu",
2417 "list of cpus to profile") 1769 "list of cpus to profile"),
2418 OPT_STRING('n', "name", &kwork.profil 1770 OPT_STRING('n', "name", &kwork.profile_name, "name",
2419 "event name to profile"), 1771 "event name to profile"),
2420 OPT_STRING('i', "input", &input_name, 1772 OPT_STRING('i', "input", &input_name, "file",
2421 "input file name"), 1773 "input file name"),
2422 OPT_PARENT(kwork_options) 1774 OPT_PARENT(kwork_options)
2423 }; 1775 };
2424 const struct option top_options[] = { <<
2425 OPT_STRING('s', "sort", &kwork.sort_o <<
2426 "sort by key(s): rate, run <<
2427 OPT_STRING('C', "cpu", &kwork.cpu_lis <<
2428 "list of cpus to profile") <<
2429 OPT_STRING('n', "name", &kwork.profil <<
2430 "event name to profile"), <<
2431 OPT_STRING(0, "time", &kwork.time_str <<
2432 "Time span for analysis (s <<
2433 OPT_STRING('i', "input", &input_name, <<
2434 "input file name"), <<
2435 #ifdef HAVE_BPF_SKEL <<
2436 OPT_BOOLEAN('b', "use-bpf", &kwork.us <<
2437 "Use BPF to measure task <<
2438 #endif <<
2439 OPT_PARENT(kwork_options) <<
2440 }; <<
2441 const char *kwork_usage[] = { 1776 const char *kwork_usage[] = {
2442 NULL, 1777 NULL,
2443 NULL 1778 NULL
2444 }; 1779 };
2445 const char * const report_usage[] = { 1780 const char * const report_usage[] = {
2446 "perf kwork report [<options> 1781 "perf kwork report [<options>]",
2447 NULL 1782 NULL
2448 }; 1783 };
2449 const char * const latency_usage[] = 1784 const char * const latency_usage[] = {
2450 "perf kwork latency [<options 1785 "perf kwork latency [<options>]",
2451 NULL 1786 NULL
2452 }; 1787 };
2453 const char * const timehist_usage[] = 1788 const char * const timehist_usage[] = {
2454 "perf kwork timehist [<option 1789 "perf kwork timehist [<options>]",
2455 NULL 1790 NULL
2456 }; 1791 };
2457 const char * const top_usage[] = { <<
2458 "perf kwork top [<options>]", <<
2459 NULL <<
2460 }; <<
2461 const char *const kwork_subcommands[] 1792 const char *const kwork_subcommands[] = {
2462 "record", "report", "latency" !! 1793 "record", "report", "latency", "timehist", NULL
2463 }; 1794 };
2464 1795
2465 argc = parse_options_subcommand(argc, 1796 argc = parse_options_subcommand(argc, argv, kwork_options,
2466 kwork 1797 kwork_subcommands, kwork_usage,
2467 PARSE 1798 PARSE_OPT_STOP_AT_NON_OPTION);
2468 if (!argc) 1799 if (!argc)
2469 usage_with_options(kwork_usag 1800 usage_with_options(kwork_usage, kwork_options);
2470 1801
>> 1802 setup_event_list(&kwork, kwork_options, kwork_usage);
2471 sort_dimension__add(&kwork, "id", &kw 1803 sort_dimension__add(&kwork, "id", &kwork.cmp_id);
2472 1804
2473 if (strlen(argv[0]) > 2 && strstarts( !! 1805 if (strlen(argv[0]) > 2 && strstarts("record", argv[0]))
2474 setup_event_list(&kwork, kwor <<
2475 return perf_kwork__record(&kw 1806 return perf_kwork__record(&kwork, argc, argv);
2476 } else if (strlen(argv[0]) > 2 && str !! 1807 else if (strlen(argv[0]) > 2 && strstarts("report", argv[0])) {
2477 kwork.sort_order = default_re 1808 kwork.sort_order = default_report_sort_order;
2478 if (argc > 1) { 1809 if (argc > 1) {
2479 argc = parse_options( 1810 argc = parse_options(argc, argv, report_options, report_usage, 0);
2480 if (argc) 1811 if (argc)
2481 usage_with_op 1812 usage_with_options(report_usage, report_options);
2482 } 1813 }
2483 kwork.report = KWORK_REPORT_R 1814 kwork.report = KWORK_REPORT_RUNTIME;
2484 setup_sorting(&kwork, report_ 1815 setup_sorting(&kwork, report_options, report_usage);
2485 setup_event_list(&kwork, kwor <<
2486 return perf_kwork__report(&kw 1816 return perf_kwork__report(&kwork);
2487 } else if (strlen(argv[0]) > 2 && str 1817 } else if (strlen(argv[0]) > 2 && strstarts("latency", argv[0])) {
2488 kwork.sort_order = default_la 1818 kwork.sort_order = default_latency_sort_order;
2489 if (argc > 1) { 1819 if (argc > 1) {
2490 argc = parse_options( 1820 argc = parse_options(argc, argv, latency_options, latency_usage, 0);
2491 if (argc) 1821 if (argc)
2492 usage_with_op 1822 usage_with_options(latency_usage, latency_options);
2493 } 1823 }
2494 kwork.report = KWORK_REPORT_L 1824 kwork.report = KWORK_REPORT_LATENCY;
2495 setup_sorting(&kwork, latency 1825 setup_sorting(&kwork, latency_options, latency_usage);
2496 setup_event_list(&kwork, kwor <<
2497 return perf_kwork__report(&kw 1826 return perf_kwork__report(&kwork);
2498 } else if (strlen(argv[0]) > 2 && str 1827 } else if (strlen(argv[0]) > 2 && strstarts("timehist", argv[0])) {
2499 if (argc > 1) { 1828 if (argc > 1) {
2500 argc = parse_options( 1829 argc = parse_options(argc, argv, timehist_options, timehist_usage, 0);
2501 if (argc) 1830 if (argc)
2502 usage_with_op 1831 usage_with_options(timehist_usage, timehist_options);
2503 } 1832 }
2504 kwork.report = KWORK_REPORT_T 1833 kwork.report = KWORK_REPORT_TIMEHIST;
2505 setup_event_list(&kwork, kwor <<
2506 return perf_kwork__timehist(& 1834 return perf_kwork__timehist(&kwork);
2507 } else if (strlen(argv[0]) > 2 && str <<
2508 kwork.sort_order = default_to <<
2509 if (argc > 1) { <<
2510 argc = parse_options( <<
2511 if (argc) <<
2512 usage_with_op <<
2513 } <<
2514 kwork.report = KWORK_REPORT_T <<
2515 if (!kwork.event_list_str) <<
2516 kwork.event_list_str <<
2517 setup_event_list(&kwork, kwor <<
2518 setup_sorting(&kwork, top_opt <<
2519 return perf_kwork__top(&kwork <<
2520 } else 1835 } else
2521 usage_with_options(kwork_usag 1836 usage_with_options(kwork_usage, kwork_options);
2522 1837
2523 return 0; 1838 return 0;
2524 } 1839 }
2525 1840
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