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1/* SPDX-License-Identifier: GPL-2.0 */
2#undef TRACE_SYSTEM
3#define TRACE_SYSTEM block
4
5#if !defined(_TRACE_BLOCK_H) || defined(TRACE_HEADER_MULTI_READ)
6#define _TRACE_BLOCK_H
7
8#include <linux/blktrace_api.h>
9#include <linux/blkdev.h>
10#include <linux/buffer_head.h>
11#include <linux/tracepoint.h>
12#include <uapi/linux/ioprio.h>
13
14#define RWBS_LEN 10
15
16#define IOPRIO_CLASS_STRINGS \
17 { IOPRIO_CLASS_NONE, "none" }, \
18 { IOPRIO_CLASS_RT, "rt" }, \
19 { IOPRIO_CLASS_BE, "be" }, \
20 { IOPRIO_CLASS_IDLE, "idle" }, \
21 { IOPRIO_CLASS_INVALID, "invalid"}
22
23#ifdef CONFIG_BUFFER_HEAD
24DECLARE_EVENT_CLASS(block_buffer,
25
26 TP_PROTO(struct buffer_head *bh),
27
28 TP_ARGS(bh),
29
30 TP_STRUCT__entry (
31 __field( dev_t, dev )
32 __field( sector_t, sector )
33 __field( size_t, size )
34 ),
35
36 TP_fast_assign(
37 __entry->dev = bh->b_bdev->bd_dev;
38 __entry->sector = bh->b_blocknr;
39 __entry->size = bh->b_size;
40 ),
41
42 TP_printk("%d,%d sector=%llu size=%zu",
43 MAJOR(__entry->dev), MINOR(__entry->dev),
44 (unsigned long long)__entry->sector, __entry->size
45 )
46);
47
48/**
49 * block_touch_buffer - mark a buffer accessed
50 * @bh: buffer_head being touched
51 *
52 * Called from touch_buffer().
53 */
54DEFINE_EVENT(block_buffer, block_touch_buffer,
55
56 TP_PROTO(struct buffer_head *bh),
57
58 TP_ARGS(bh)
59);
60
61/**
62 * block_dirty_buffer - mark a buffer dirty
63 * @bh: buffer_head being dirtied
64 *
65 * Called from mark_buffer_dirty().
66 */
67DEFINE_EVENT(block_buffer, block_dirty_buffer,
68
69 TP_PROTO(struct buffer_head *bh),
70
71 TP_ARGS(bh)
72);
73#endif /* CONFIG_BUFFER_HEAD */
74
75/**
76 * block_rq_requeue - place block IO request back on a queue
77 * @rq: block IO operation request
78 *
79 * The block operation request @rq is being placed back into queue
80 * @q. For some reason the request was not completed and needs to be
81 * put back in the queue.
82 */
83TRACE_EVENT(block_rq_requeue,
84
85 TP_PROTO(struct request *rq),
86
87 TP_ARGS(rq),
88
89 TP_STRUCT__entry(
90 __field( dev_t, dev )
91 __field( sector_t, sector )
92 __field( unsigned int, nr_sector )
93 __field( unsigned short, ioprio )
94 __array( char, rwbs, RWBS_LEN )
95 __dynamic_array( char, cmd, 1 )
96 ),
97
98 TP_fast_assign(
99 __entry->dev = rq->q->disk ? disk_devt(rq->q->disk) : 0;
100 __entry->sector = blk_rq_trace_sector(rq);
101 __entry->nr_sector = blk_rq_trace_nr_sectors(rq);
102 __entry->ioprio = req_get_ioprio(rq);
103
104 blk_fill_rwbs(__entry->rwbs, rq->cmd_flags);
105 __get_str(cmd)[0] = '\0';
106 ),
107
108 TP_printk("%d,%d %s (%s) %llu + %u %s,%u,%u [%d]",
109 MAJOR(__entry->dev), MINOR(__entry->dev),
110 __entry->rwbs, __get_str(cmd),
111 (unsigned long long)__entry->sector, __entry->nr_sector,
112 __print_symbolic(IOPRIO_PRIO_CLASS(__entry->ioprio),
113 IOPRIO_CLASS_STRINGS),
114 IOPRIO_PRIO_HINT(__entry->ioprio),
115 IOPRIO_PRIO_LEVEL(__entry->ioprio), 0)
116);
117
118DECLARE_EVENT_CLASS(block_rq_completion,
119
120 TP_PROTO(struct request *rq, blk_status_t error, unsigned int nr_bytes),
121
122 TP_ARGS(rq, error, nr_bytes),
123
124 TP_STRUCT__entry(
125 __field( dev_t, dev )
126 __field( sector_t, sector )
127 __field( unsigned int, nr_sector )
128 __field( int , error )
129 __field( unsigned short, ioprio )
130 __array( char, rwbs, RWBS_LEN )
131 __dynamic_array( char, cmd, 1 )
132 ),
133
134 TP_fast_assign(
135 __entry->dev = rq->q->disk ? disk_devt(rq->q->disk) : 0;
136 __entry->sector = blk_rq_pos(rq);
137 __entry->nr_sector = nr_bytes >> 9;
138 __entry->error = blk_status_to_errno(error);
139 __entry->ioprio = req_get_ioprio(rq);
140
141 blk_fill_rwbs(__entry->rwbs, rq->cmd_flags);
142 __get_str(cmd)[0] = '\0';
143 ),
144
145 TP_printk("%d,%d %s (%s) %llu + %u %s,%u,%u [%d]",
146 MAJOR(__entry->dev), MINOR(__entry->dev),
147 __entry->rwbs, __get_str(cmd),
148 (unsigned long long)__entry->sector, __entry->nr_sector,
149 __print_symbolic(IOPRIO_PRIO_CLASS(__entry->ioprio),
150 IOPRIO_CLASS_STRINGS),
151 IOPRIO_PRIO_HINT(__entry->ioprio),
152 IOPRIO_PRIO_LEVEL(__entry->ioprio), __entry->error)
153);
154
155/**
156 * block_rq_complete - block IO operation completed by device driver
157 * @rq: block operations request
158 * @error: status code
159 * @nr_bytes: number of completed bytes
160 *
161 * The block_rq_complete tracepoint event indicates that some portion
162 * of operation request has been completed by the device driver. If
163 * the @rq->bio is %NULL, then there is absolutely no additional work to
164 * do for the request. If @rq->bio is non-NULL then there is
165 * additional work required to complete the request.
166 */
167DEFINE_EVENT(block_rq_completion, block_rq_complete,
168
169 TP_PROTO(struct request *rq, blk_status_t error, unsigned int nr_bytes),
170
171 TP_ARGS(rq, error, nr_bytes)
172);
173
174/**
175 * block_rq_error - block IO operation error reported by device driver
176 * @rq: block operations request
177 * @error: status code
178 * @nr_bytes: number of completed bytes
179 *
180 * The block_rq_error tracepoint event indicates that some portion
181 * of operation request has failed as reported by the device driver.
182 */
183DEFINE_EVENT(block_rq_completion, block_rq_error,
184
185 TP_PROTO(struct request *rq, blk_status_t error, unsigned int nr_bytes),
186
187 TP_ARGS(rq, error, nr_bytes)
188);
189
190DECLARE_EVENT_CLASS(block_rq,
191
192 TP_PROTO(struct request *rq),
193
194 TP_ARGS(rq),
195
196 TP_STRUCT__entry(
197 __field( dev_t, dev )
198 __field( sector_t, sector )
199 __field( unsigned int, nr_sector )
200 __field( unsigned int, bytes )
201 __field( unsigned short, ioprio )
202 __array( char, rwbs, RWBS_LEN )
203 __array( char, comm, TASK_COMM_LEN )
204 __dynamic_array( char, cmd, 1 )
205 ),
206
207 TP_fast_assign(
208 __entry->dev = rq->q->disk ? disk_devt(rq->q->disk) : 0;
209 __entry->sector = blk_rq_trace_sector(rq);
210 __entry->nr_sector = blk_rq_trace_nr_sectors(rq);
211 __entry->bytes = blk_rq_bytes(rq);
212 __entry->ioprio = req_get_ioprio(rq);
213
214 blk_fill_rwbs(__entry->rwbs, rq->cmd_flags);
215 __get_str(cmd)[0] = '\0';
216 memcpy(__entry->comm, current->comm, TASK_COMM_LEN);
217 ),
218
219 TP_printk("%d,%d %s %u (%s) %llu + %u %s,%u,%u [%s]",
220 MAJOR(__entry->dev), MINOR(__entry->dev),
221 __entry->rwbs, __entry->bytes, __get_str(cmd),
222 (unsigned long long)__entry->sector, __entry->nr_sector,
223 __print_symbolic(IOPRIO_PRIO_CLASS(__entry->ioprio),
224 IOPRIO_CLASS_STRINGS),
225 IOPRIO_PRIO_HINT(__entry->ioprio),
226 IOPRIO_PRIO_LEVEL(__entry->ioprio), __entry->comm)
227);
228
229/**
230 * block_rq_tag_wait - triggered when a request is starved of a tag
231 * @q: request queue of the target device
232 * @hctx: hardware context of the request experiencing starvation
233 * @is_sched_tag: indicates whether the starved pool is the software scheduler
234 * @alloc_flags: allocation flags dictating the specific tag pool
235 *
236 * Called immediately before the submitting context is forced to block due
237 * to the exhaustion of available tags (i.e., physical hardware driver
238 * tags, software scheduler tags, or reserved tags). This trace point
239 * indicates that the context will be placed into an uninterruptible state
240 * via sbitmap_prepare_to_wait(). If a tag is not acquired in the final
241 * lockless retry, the context will yield the CPU via io_schedule() until
242 * an active request completes and relinquishes its assigned tag.
243 */
244TRACE_EVENT(block_rq_tag_wait,
245
246 TP_PROTO(struct request_queue *q, struct blk_mq_hw_ctx *hctx,
247 bool is_sched_tag, unsigned int alloc_flags),
248
249 TP_ARGS(q, hctx, is_sched_tag, alloc_flags),
250
251 TP_STRUCT__entry(
252 __field( dev_t, dev )
253 __field( u32, hctx_id )
254 __field( u32, nr_tags )
255 __field( bool, is_sched_tag )
256 __field( bool, is_reserved )
257 ),
258
259 TP_fast_assign(
260 __entry->dev = q->disk ? disk_devt(q->disk) : 0;
261 __entry->hctx_id = hctx->queue_num;
262 __entry->is_sched_tag = is_sched_tag;
263 __entry->is_reserved = alloc_flags & BLK_MQ_REQ_RESERVED;
264
265 if (__entry->is_reserved) {
266 __entry->nr_tags = is_sched_tag ?
267 hctx->sched_tags->nr_reserved_tags :
268 hctx->tags->nr_reserved_tags;
269 } else {
270 if (is_sched_tag)
271 __entry->nr_tags = hctx->sched_tags->nr_tags -
272 hctx->sched_tags->nr_reserved_tags;
273 else
274 __entry->nr_tags = hctx->tags->nr_tags -
275 hctx->tags->nr_reserved_tags;
276 }
277
278 ),
279
280 TP_printk("%d,%d hctx=%u starved on %s%s tags (depth=%u)",
281 MAJOR(__entry->dev), MINOR(__entry->dev),
282 __entry->hctx_id,
283 __entry->is_sched_tag ? "scheduler" : "hardware",
284 __entry->is_reserved ? " reserved" : "",
285 __entry->nr_tags)
286);
287
288/**
289 * block_rq_insert - insert block operation request into queue
290 * @rq: block IO operation request
291 *
292 * Called immediately before block operation request @rq is inserted
293 * into queue @q. The fields in the operation request @rq struct can
294 * be examined to determine which device and sectors the pending
295 * operation would access.
296 */
297DEFINE_EVENT(block_rq, block_rq_insert,
298
299 TP_PROTO(struct request *rq),
300
301 TP_ARGS(rq)
302);
303
304/**
305 * block_rq_issue - issue pending block IO request operation to device driver
306 * @rq: block IO operation request
307 *
308 * Called when block operation request @rq from queue @q is sent to a
309 * device driver for processing.
310 */
311DEFINE_EVENT(block_rq, block_rq_issue,
312
313 TP_PROTO(struct request *rq),
314
315 TP_ARGS(rq)
316);
317
318/**
319 * block_rq_merge - merge request with another one in the elevator
320 * @rq: block IO operation request
321 *
322 * Called when block operation request @rq from queue @q is merged to another
323 * request queued in the elevator.
324 */
325DEFINE_EVENT(block_rq, block_rq_merge,
326
327 TP_PROTO(struct request *rq),
328
329 TP_ARGS(rq)
330);
331
332/**
333 * block_io_start - insert a request for execution
334 * @rq: block IO operation request
335 *
336 * Called when block operation request @rq is queued for execution
337 */
338DEFINE_EVENT(block_rq, block_io_start,
339
340 TP_PROTO(struct request *rq),
341
342 TP_ARGS(rq)
343);
344
345/**
346 * block_io_done - block IO operation request completed
347 * @rq: block IO operation request
348 *
349 * Called when block operation request @rq is completed
350 */
351DEFINE_EVENT(block_rq, block_io_done,
352
353 TP_PROTO(struct request *rq),
354
355 TP_ARGS(rq)
356);
357
358/**
359 * block_bio_complete - completed all work on the block operation
360 * @q: queue holding the block operation
361 * @bio: block operation completed
362 *
363 * This tracepoint indicates there is no further work to do on this
364 * block IO operation @bio.
365 */
366TRACE_EVENT(block_bio_complete,
367
368 TP_PROTO(struct request_queue *q, struct bio *bio),
369
370 TP_ARGS(q, bio),
371
372 TP_STRUCT__entry(
373 __field( dev_t, dev )
374 __field( sector_t, sector )
375 __field( unsigned, nr_sector )
376 __field( int, error )
377 __array( char, rwbs, RWBS_LEN)
378 ),
379
380 TP_fast_assign(
381 __entry->dev = bio_dev(bio);
382 __entry->sector = bio->bi_iter.bi_sector;
383 __entry->nr_sector = bio_sectors(bio);
384 __entry->error = blk_status_to_errno(bio->bi_status);
385 blk_fill_rwbs(__entry->rwbs, bio->bi_opf);
386 ),
387
388 TP_printk("%d,%d %s %llu + %u [%d]",
389 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
390 (unsigned long long)__entry->sector,
391 __entry->nr_sector, __entry->error)
392);
393
394DECLARE_EVENT_CLASS(block_bio,
395
396 TP_PROTO(struct bio *bio),
397
398 TP_ARGS(bio),
399
400 TP_STRUCT__entry(
401 __field( dev_t, dev )
402 __field( sector_t, sector )
403 __field( unsigned int, nr_sector )
404 __array( char, rwbs, RWBS_LEN )
405 __array( char, comm, TASK_COMM_LEN )
406 ),
407
408 TP_fast_assign(
409 __entry->dev = bio_dev(bio);
410 __entry->sector = bio->bi_iter.bi_sector;
411 __entry->nr_sector = bio_sectors(bio);
412 blk_fill_rwbs(__entry->rwbs, bio->bi_opf);
413 memcpy(__entry->comm, current->comm, TASK_COMM_LEN);
414 ),
415
416 TP_printk("%d,%d %s %llu + %u [%s]",
417 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
418 (unsigned long long)__entry->sector,
419 __entry->nr_sector, __entry->comm)
420);
421
422/**
423 * block_bio_backmerge - merging block operation to the end of an existing operation
424 * @bio: new block operation to merge
425 *
426 * Merging block request @bio to the end of an existing block request.
427 */
428DEFINE_EVENT(block_bio, block_bio_backmerge,
429 TP_PROTO(struct bio *bio),
430 TP_ARGS(bio)
431);
432
433/**
434 * block_bio_frontmerge - merging block operation to the beginning of an existing operation
435 * @bio: new block operation to merge
436 *
437 * Merging block IO operation @bio to the beginning of an existing block request.
438 */
439DEFINE_EVENT(block_bio, block_bio_frontmerge,
440 TP_PROTO(struct bio *bio),
441 TP_ARGS(bio)
442);
443
444/**
445 * block_bio_queue - putting new block IO operation in queue
446 * @bio: new block operation
447 *
448 * About to place the block IO operation @bio into queue @q.
449 */
450DEFINE_EVENT(block_bio, block_bio_queue,
451 TP_PROTO(struct bio *bio),
452 TP_ARGS(bio)
453);
454
455/**
456 * block_getrq - get a free request entry in queue for block IO operations
457 * @bio: pending block IO operation (can be %NULL)
458 *
459 * A request struct has been allocated to handle the block IO operation @bio.
460 */
461DEFINE_EVENT(block_bio, block_getrq,
462 TP_PROTO(struct bio *bio),
463 TP_ARGS(bio)
464);
465
466/**
467 * blk_zone_append_update_request_bio - update bio sector after zone append
468 * @rq: the completed request that sets the bio sector
469 *
470 * Update the bio's bi_sector after a zone append command has been completed.
471 */
472DEFINE_EVENT(block_rq, blk_zone_append_update_request_bio,
473 TP_PROTO(struct request *rq),
474 TP_ARGS(rq)
475);
476
477/**
478 * block_plug - keep operations requests in request queue
479 * @q: request queue to plug
480 *
481 * Plug the request queue @q. Do not allow block operation requests
482 * to be sent to the device driver. Instead, accumulate requests in
483 * the queue to improve throughput performance of the block device.
484 */
485TRACE_EVENT(block_plug,
486
487 TP_PROTO(struct request_queue *q),
488
489 TP_ARGS(q),
490
491 TP_STRUCT__entry(
492 __array( char, comm, TASK_COMM_LEN )
493 ),
494
495 TP_fast_assign(
496 memcpy(__entry->comm, current->comm, TASK_COMM_LEN);
497 ),
498
499 TP_printk("[%s]", __entry->comm)
500);
501
502DECLARE_EVENT_CLASS(block_unplug,
503
504 TP_PROTO(struct request_queue *q, unsigned int depth, bool explicit),
505
506 TP_ARGS(q, depth, explicit),
507
508 TP_STRUCT__entry(
509 __field( int, nr_rq )
510 __array( char, comm, TASK_COMM_LEN )
511 ),
512
513 TP_fast_assign(
514 __entry->nr_rq = depth;
515 memcpy(__entry->comm, current->comm, TASK_COMM_LEN);
516 ),
517
518 TP_printk("[%s] %d", __entry->comm, __entry->nr_rq)
519);
520
521/**
522 * block_unplug - release of operations requests in request queue
523 * @q: request queue to unplug
524 * @depth: number of requests just added to the queue
525 * @explicit: whether this was an explicit unplug, or one from schedule()
526 *
527 * Unplug request queue @q because device driver is scheduled to work
528 * on elements in the request queue.
529 */
530DEFINE_EVENT(block_unplug, block_unplug,
531
532 TP_PROTO(struct request_queue *q, unsigned int depth, bool explicit),
533
534 TP_ARGS(q, depth, explicit)
535);
536
537/**
538 * block_split - split a single bio struct into two bio structs
539 * @bio: block operation being split
540 * @new_sector: The starting sector for the new bio
541 *
542 * The bio request @bio needs to be split into two bio requests. The newly
543 * created @bio request starts at @new_sector. This split may be required due to
544 * hardware limitations such as operation crossing device boundaries in a RAID
545 * system.
546 */
547TRACE_EVENT(block_split,
548
549 TP_PROTO(struct bio *bio, unsigned int new_sector),
550
551 TP_ARGS(bio, new_sector),
552
553 TP_STRUCT__entry(
554 __field( dev_t, dev )
555 __field( sector_t, sector )
556 __field( sector_t, new_sector )
557 __array( char, rwbs, RWBS_LEN )
558 __array( char, comm, TASK_COMM_LEN )
559 ),
560
561 TP_fast_assign(
562 __entry->dev = bio_dev(bio);
563 __entry->sector = bio->bi_iter.bi_sector;
564 __entry->new_sector = new_sector;
565 blk_fill_rwbs(__entry->rwbs, bio->bi_opf);
566 memcpy(__entry->comm, current->comm, TASK_COMM_LEN);
567 ),
568
569 TP_printk("%d,%d %s %llu / %llu [%s]",
570 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
571 (unsigned long long)__entry->sector,
572 (unsigned long long)__entry->new_sector,
573 __entry->comm)
574);
575
576/**
577 * block_bio_remap - map request for a logical device to the raw device
578 * @bio: revised operation
579 * @dev: original device for the operation
580 * @from: original sector for the operation
581 *
582 * An operation for a logical device has been mapped to the
583 * raw block device.
584 */
585TRACE_EVENT(block_bio_remap,
586
587 TP_PROTO(struct bio *bio, dev_t dev, sector_t from),
588
589 TP_ARGS(bio, dev, from),
590
591 TP_STRUCT__entry(
592 __field( dev_t, dev )
593 __field( sector_t, sector )
594 __field( unsigned int, nr_sector )
595 __field( dev_t, old_dev )
596 __field( sector_t, old_sector )
597 __array( char, rwbs, RWBS_LEN)
598 ),
599
600 TP_fast_assign(
601 __entry->dev = bio_dev(bio);
602 __entry->sector = bio->bi_iter.bi_sector;
603 __entry->nr_sector = bio_sectors(bio);
604 __entry->old_dev = dev;
605 __entry->old_sector = from;
606 blk_fill_rwbs(__entry->rwbs, bio->bi_opf);
607 ),
608
609 TP_printk("%d,%d %s %llu + %u <- (%d,%d) %llu",
610 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
611 (unsigned long long)__entry->sector,
612 __entry->nr_sector,
613 MAJOR(__entry->old_dev), MINOR(__entry->old_dev),
614 (unsigned long long)__entry->old_sector)
615);
616
617/**
618 * block_rq_remap - map request for a block operation request
619 * @rq: block IO operation request
620 * @dev: device for the operation
621 * @from: original sector for the operation
622 *
623 * The block operation request @rq in @q has been remapped. The block
624 * operation request @rq holds the current information and @from hold
625 * the original sector.
626 */
627TRACE_EVENT(block_rq_remap,
628
629 TP_PROTO(struct request *rq, dev_t dev, sector_t from),
630
631 TP_ARGS(rq, dev, from),
632
633 TP_STRUCT__entry(
634 __field( dev_t, dev )
635 __field( sector_t, sector )
636 __field( unsigned int, nr_sector )
637 __field( dev_t, old_dev )
638 __field( sector_t, old_sector )
639 __field( unsigned int, nr_bios )
640 __array( char, rwbs, RWBS_LEN)
641 ),
642
643 TP_fast_assign(
644 __entry->dev = disk_devt(rq->q->disk);
645 __entry->sector = blk_rq_pos(rq);
646 __entry->nr_sector = blk_rq_sectors(rq);
647 __entry->old_dev = dev;
648 __entry->old_sector = from;
649 __entry->nr_bios = blk_rq_count_bios(rq);
650 blk_fill_rwbs(__entry->rwbs, rq->cmd_flags);
651 ),
652
653 TP_printk("%d,%d %s %llu + %u <- (%d,%d) %llu %u",
654 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
655 (unsigned long long)__entry->sector,
656 __entry->nr_sector,
657 MAJOR(__entry->old_dev), MINOR(__entry->old_dev),
658 (unsigned long long)__entry->old_sector, __entry->nr_bios)
659);
660
661/**
662 * blkdev_zone_mgmt - Execute a zone management operation on a range of zones
663 * @bio: The block IO operation sent down to the device
664 * @nr_sectors: The number of sectors affected by this operation
665 *
666 * Execute a zone management operation on a specified range of zones. This
667 * range is encoded in %nr_sectors, which has to be a multiple of the zone
668 * size.
669 */
670TRACE_EVENT(blkdev_zone_mgmt,
671
672 TP_PROTO(struct bio *bio, sector_t nr_sectors),
673
674 TP_ARGS(bio, nr_sectors),
675
676 TP_STRUCT__entry(
677 __field( dev_t, dev )
678 __field( sector_t, sector )
679 __field( sector_t, nr_sectors )
680 __array( char, rwbs, RWBS_LEN)
681 ),
682
683 TP_fast_assign(
684 __entry->dev = bio_dev(bio);
685 __entry->sector = bio->bi_iter.bi_sector;
686 __entry->nr_sectors = bio_sectors(bio);
687 blk_fill_rwbs(__entry->rwbs, bio->bi_opf);
688 ),
689
690 TP_printk("%d,%d %s %llu + %llu",
691 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->rwbs,
692 (unsigned long long)__entry->sector,
693 __entry->nr_sectors)
694);
695
696DECLARE_EVENT_CLASS(block_zwplug,
697
698 TP_PROTO(struct request_queue *q, unsigned int zno, sector_t sector,
699 unsigned int nr_sectors),
700
701 TP_ARGS(q, zno, sector, nr_sectors),
702
703 TP_STRUCT__entry(
704 __field( dev_t, dev )
705 __field( unsigned int, zno )
706 __field( sector_t, sector )
707 __field( unsigned int, nr_sectors )
708 ),
709
710 TP_fast_assign(
711 __entry->dev = disk_devt(q->disk);
712 __entry->zno = zno;
713 __entry->sector = sector;
714 __entry->nr_sectors = nr_sectors;
715 ),
716
717 TP_printk("%d,%d zone %u, BIO %llu + %u",
718 MAJOR(__entry->dev), MINOR(__entry->dev), __entry->zno,
719 (unsigned long long)__entry->sector,
720 __entry->nr_sectors)
721);
722
723DEFINE_EVENT(block_zwplug, disk_zone_wplug_add_bio,
724
725 TP_PROTO(struct request_queue *q, unsigned int zno, sector_t sector,
726 unsigned int nr_sectors),
727
728 TP_ARGS(q, zno, sector, nr_sectors)
729);
730
731DEFINE_EVENT(block_zwplug, blk_zone_wplug_bio,
732
733 TP_PROTO(struct request_queue *q, unsigned int zno, sector_t sector,
734 unsigned int nr_sectors),
735
736 TP_ARGS(q, zno, sector, nr_sectors)
737);
738
739#endif /* _TRACE_BLOCK_H */
740
741/* This part must be outside protection */
742#include <trace/define_trace.h>
743