xhci-trace.h 15 KB

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  1. // SPDX-License-Identifier: GPL-2.0
  2. /*
  3. * xHCI host controller driver
  4. *
  5. * Copyright (C) 2013 Xenia Ragiadakou
  6. *
  7. * Author: Xenia Ragiadakou
  8. * Email : burzalodowa@gmail.com
  9. */
  10. #undef TRACE_SYSTEM
  11. #define TRACE_SYSTEM xhci-hcd
  12. /*
  13. * The TRACE_SYSTEM_VAR defaults to TRACE_SYSTEM, but must be a
  14. * legitimate C variable. It is not exported to user space.
  15. */
  16. #undef TRACE_SYSTEM_VAR
  17. #define TRACE_SYSTEM_VAR xhci_hcd
  18. #if !defined(__XHCI_TRACE_H) || defined(TRACE_HEADER_MULTI_READ)
  19. #define __XHCI_TRACE_H
  20. #include <linux/tracepoint.h>
  21. #include "xhci.h"
  22. #include "xhci-dbgcap.h"
  23. #define XHCI_MSG_MAX 500
  24. DECLARE_EVENT_CLASS(xhci_log_msg,
  25. TP_PROTO(struct va_format *vaf),
  26. TP_ARGS(vaf),
  27. TP_STRUCT__entry(__dynamic_array(char, msg, XHCI_MSG_MAX)),
  28. TP_fast_assign(
  29. vsnprintf(__get_str(msg), XHCI_MSG_MAX, vaf->fmt, *vaf->va);
  30. ),
  31. TP_printk("%s", __get_str(msg))
  32. );
  33. DEFINE_EVENT(xhci_log_msg, xhci_dbg_address,
  34. TP_PROTO(struct va_format *vaf),
  35. TP_ARGS(vaf)
  36. );
  37. DEFINE_EVENT(xhci_log_msg, xhci_dbg_context_change,
  38. TP_PROTO(struct va_format *vaf),
  39. TP_ARGS(vaf)
  40. );
  41. DEFINE_EVENT(xhci_log_msg, xhci_dbg_quirks,
  42. TP_PROTO(struct va_format *vaf),
  43. TP_ARGS(vaf)
  44. );
  45. DEFINE_EVENT(xhci_log_msg, xhci_dbg_reset_ep,
  46. TP_PROTO(struct va_format *vaf),
  47. TP_ARGS(vaf)
  48. );
  49. DEFINE_EVENT(xhci_log_msg, xhci_dbg_cancel_urb,
  50. TP_PROTO(struct va_format *vaf),
  51. TP_ARGS(vaf)
  52. );
  53. DEFINE_EVENT(xhci_log_msg, xhci_dbg_init,
  54. TP_PROTO(struct va_format *vaf),
  55. TP_ARGS(vaf)
  56. );
  57. DEFINE_EVENT(xhci_log_msg, xhci_dbg_ring_expansion,
  58. TP_PROTO(struct va_format *vaf),
  59. TP_ARGS(vaf)
  60. );
  61. DECLARE_EVENT_CLASS(xhci_log_ctx,
  62. TP_PROTO(struct xhci_hcd *xhci, struct xhci_container_ctx *ctx,
  63. unsigned int ep_num),
  64. TP_ARGS(xhci, ctx, ep_num),
  65. TP_STRUCT__entry(
  66. __field(int, ctx_64)
  67. __field(unsigned, ctx_type)
  68. __field(dma_addr_t, ctx_dma)
  69. __field(u8 *, ctx_va)
  70. __field(unsigned, ctx_ep_num)
  71. __field(int, slot_id)
  72. __dynamic_array(u32, ctx_data,
  73. ((HCC_64BYTE_CONTEXT(xhci->hcc_params) + 1) * 8) *
  74. ((ctx->type == XHCI_CTX_TYPE_INPUT) + ep_num + 1))
  75. ),
  76. TP_fast_assign(
  77. struct usb_device *udev;
  78. udev = to_usb_device(xhci_to_hcd(xhci)->self.controller);
  79. __entry->ctx_64 = HCC_64BYTE_CONTEXT(xhci->hcc_params);
  80. __entry->ctx_type = ctx->type;
  81. __entry->ctx_dma = ctx->dma;
  82. __entry->ctx_va = ctx->bytes;
  83. __entry->slot_id = udev->slot_id;
  84. __entry->ctx_ep_num = ep_num;
  85. memcpy(__get_dynamic_array(ctx_data), ctx->bytes,
  86. ((HCC_64BYTE_CONTEXT(xhci->hcc_params) + 1) * 32) *
  87. ((ctx->type == XHCI_CTX_TYPE_INPUT) + ep_num + 1));
  88. ),
  89. TP_printk("ctx_64=%d, ctx_type=%u, ctx_dma=@%llx, ctx_va=@%p",
  90. __entry->ctx_64, __entry->ctx_type,
  91. (unsigned long long) __entry->ctx_dma, __entry->ctx_va
  92. )
  93. );
  94. DEFINE_EVENT(xhci_log_ctx, xhci_address_ctx,
  95. TP_PROTO(struct xhci_hcd *xhci, struct xhci_container_ctx *ctx,
  96. unsigned int ep_num),
  97. TP_ARGS(xhci, ctx, ep_num)
  98. );
  99. DECLARE_EVENT_CLASS(xhci_log_trb,
  100. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  101. TP_ARGS(ring, trb),
  102. TP_STRUCT__entry(
  103. __field(u32, type)
  104. __field(u32, field0)
  105. __field(u32, field1)
  106. __field(u32, field2)
  107. __field(u32, field3)
  108. ),
  109. TP_fast_assign(
  110. __entry->type = ring->type;
  111. __entry->field0 = le32_to_cpu(trb->field[0]);
  112. __entry->field1 = le32_to_cpu(trb->field[1]);
  113. __entry->field2 = le32_to_cpu(trb->field[2]);
  114. __entry->field3 = le32_to_cpu(trb->field[3]);
  115. ),
  116. TP_printk("%s: %s", xhci_ring_type_string(__entry->type),
  117. xhci_decode_trb(__entry->field0, __entry->field1,
  118. __entry->field2, __entry->field3)
  119. )
  120. );
  121. DEFINE_EVENT(xhci_log_trb, xhci_handle_event,
  122. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  123. TP_ARGS(ring, trb)
  124. );
  125. DEFINE_EVENT(xhci_log_trb, xhci_handle_command,
  126. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  127. TP_ARGS(ring, trb)
  128. );
  129. DEFINE_EVENT(xhci_log_trb, xhci_handle_transfer,
  130. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  131. TP_ARGS(ring, trb)
  132. );
  133. DEFINE_EVENT(xhci_log_trb, xhci_queue_trb,
  134. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  135. TP_ARGS(ring, trb)
  136. );
  137. DEFINE_EVENT(xhci_log_trb, xhci_dbc_handle_event,
  138. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  139. TP_ARGS(ring, trb)
  140. );
  141. DEFINE_EVENT(xhci_log_trb, xhci_dbc_handle_transfer,
  142. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  143. TP_ARGS(ring, trb)
  144. );
  145. DEFINE_EVENT(xhci_log_trb, xhci_dbc_gadget_ep_queue,
  146. TP_PROTO(struct xhci_ring *ring, struct xhci_generic_trb *trb),
  147. TP_ARGS(ring, trb)
  148. );
  149. DECLARE_EVENT_CLASS(xhci_log_free_virt_dev,
  150. TP_PROTO(struct xhci_virt_device *vdev),
  151. TP_ARGS(vdev),
  152. TP_STRUCT__entry(
  153. __field(void *, vdev)
  154. __field(unsigned long long, out_ctx)
  155. __field(unsigned long long, in_ctx)
  156. __field(u8, fake_port)
  157. __field(u8, real_port)
  158. __field(u16, current_mel)
  159. ),
  160. TP_fast_assign(
  161. __entry->vdev = vdev;
  162. __entry->in_ctx = (unsigned long long) vdev->in_ctx->dma;
  163. __entry->out_ctx = (unsigned long long) vdev->out_ctx->dma;
  164. __entry->fake_port = (u8) vdev->fake_port;
  165. __entry->real_port = (u8) vdev->real_port;
  166. __entry->current_mel = (u16) vdev->current_mel;
  167. ),
  168. TP_printk("vdev %p ctx %llx | %llx fake_port %d real_port %d current_mel %d",
  169. __entry->vdev, __entry->in_ctx, __entry->out_ctx,
  170. __entry->fake_port, __entry->real_port, __entry->current_mel
  171. )
  172. );
  173. DEFINE_EVENT(xhci_log_free_virt_dev, xhci_free_virt_device,
  174. TP_PROTO(struct xhci_virt_device *vdev),
  175. TP_ARGS(vdev)
  176. );
  177. DECLARE_EVENT_CLASS(xhci_log_virt_dev,
  178. TP_PROTO(struct xhci_virt_device *vdev),
  179. TP_ARGS(vdev),
  180. TP_STRUCT__entry(
  181. __field(void *, vdev)
  182. __field(unsigned long long, out_ctx)
  183. __field(unsigned long long, in_ctx)
  184. __field(int, devnum)
  185. __field(int, state)
  186. __field(int, speed)
  187. __field(u8, portnum)
  188. __field(u8, level)
  189. __field(int, slot_id)
  190. ),
  191. TP_fast_assign(
  192. __entry->vdev = vdev;
  193. __entry->in_ctx = (unsigned long long) vdev->in_ctx->dma;
  194. __entry->out_ctx = (unsigned long long) vdev->out_ctx->dma;
  195. __entry->devnum = vdev->udev->devnum;
  196. __entry->state = vdev->udev->state;
  197. __entry->speed = vdev->udev->speed;
  198. __entry->portnum = vdev->udev->portnum;
  199. __entry->level = vdev->udev->level;
  200. __entry->slot_id = vdev->udev->slot_id;
  201. ),
  202. TP_printk("vdev %p ctx %llx | %llx num %d state %d speed %d port %d level %d slot %d",
  203. __entry->vdev, __entry->in_ctx, __entry->out_ctx,
  204. __entry->devnum, __entry->state, __entry->speed,
  205. __entry->portnum, __entry->level, __entry->slot_id
  206. )
  207. );
  208. DEFINE_EVENT(xhci_log_virt_dev, xhci_alloc_virt_device,
  209. TP_PROTO(struct xhci_virt_device *vdev),
  210. TP_ARGS(vdev)
  211. );
  212. DEFINE_EVENT(xhci_log_virt_dev, xhci_setup_device,
  213. TP_PROTO(struct xhci_virt_device *vdev),
  214. TP_ARGS(vdev)
  215. );
  216. DEFINE_EVENT(xhci_log_virt_dev, xhci_setup_addressable_virt_device,
  217. TP_PROTO(struct xhci_virt_device *vdev),
  218. TP_ARGS(vdev)
  219. );
  220. DEFINE_EVENT(xhci_log_virt_dev, xhci_stop_device,
  221. TP_PROTO(struct xhci_virt_device *vdev),
  222. TP_ARGS(vdev)
  223. );
  224. DECLARE_EVENT_CLASS(xhci_log_urb,
  225. TP_PROTO(struct urb *urb),
  226. TP_ARGS(urb),
  227. TP_STRUCT__entry(
  228. __field(void *, urb)
  229. __field(unsigned int, pipe)
  230. __field(unsigned int, stream)
  231. __field(int, status)
  232. __field(unsigned int, flags)
  233. __field(int, num_mapped_sgs)
  234. __field(int, num_sgs)
  235. __field(int, length)
  236. __field(int, actual)
  237. __field(int, epnum)
  238. __field(int, dir_in)
  239. __field(int, type)
  240. __field(int, slot_id)
  241. ),
  242. TP_fast_assign(
  243. __entry->urb = urb;
  244. __entry->pipe = urb->pipe;
  245. __entry->stream = urb->stream_id;
  246. __entry->status = urb->status;
  247. __entry->flags = urb->transfer_flags;
  248. __entry->num_mapped_sgs = urb->num_mapped_sgs;
  249. __entry->num_sgs = urb->num_sgs;
  250. __entry->length = urb->transfer_buffer_length;
  251. __entry->actual = urb->actual_length;
  252. __entry->epnum = usb_endpoint_num(&urb->ep->desc);
  253. __entry->dir_in = usb_endpoint_dir_in(&urb->ep->desc);
  254. __entry->type = usb_endpoint_type(&urb->ep->desc);
  255. __entry->slot_id = urb->dev->slot_id;
  256. ),
  257. TP_printk("ep%d%s-%s: urb %p pipe %u slot %d length %d/%d sgs %d/%d stream %d flags %08x",
  258. __entry->epnum, __entry->dir_in ? "in" : "out",
  259. ({ char *s;
  260. switch (__entry->type) {
  261. case USB_ENDPOINT_XFER_INT:
  262. s = "intr";
  263. break;
  264. case USB_ENDPOINT_XFER_CONTROL:
  265. s = "control";
  266. break;
  267. case USB_ENDPOINT_XFER_BULK:
  268. s = "bulk";
  269. break;
  270. case USB_ENDPOINT_XFER_ISOC:
  271. s = "isoc";
  272. break;
  273. default:
  274. s = "UNKNOWN";
  275. } s; }), __entry->urb, __entry->pipe, __entry->slot_id,
  276. __entry->actual, __entry->length, __entry->num_mapped_sgs,
  277. __entry->num_sgs, __entry->stream, __entry->flags
  278. )
  279. );
  280. DEFINE_EVENT(xhci_log_urb, xhci_urb_enqueue,
  281. TP_PROTO(struct urb *urb),
  282. TP_ARGS(urb)
  283. );
  284. DEFINE_EVENT(xhci_log_urb, xhci_urb_giveback,
  285. TP_PROTO(struct urb *urb),
  286. TP_ARGS(urb)
  287. );
  288. DEFINE_EVENT(xhci_log_urb, xhci_urb_dequeue,
  289. TP_PROTO(struct urb *urb),
  290. TP_ARGS(urb)
  291. );
  292. DECLARE_EVENT_CLASS(xhci_log_ep_ctx,
  293. TP_PROTO(struct xhci_ep_ctx *ctx),
  294. TP_ARGS(ctx),
  295. TP_STRUCT__entry(
  296. __field(u32, info)
  297. __field(u32, info2)
  298. __field(u64, deq)
  299. __field(u32, tx_info)
  300. ),
  301. TP_fast_assign(
  302. __entry->info = le32_to_cpu(ctx->ep_info);
  303. __entry->info2 = le32_to_cpu(ctx->ep_info2);
  304. __entry->deq = le64_to_cpu(ctx->deq);
  305. __entry->tx_info = le32_to_cpu(ctx->tx_info);
  306. ),
  307. TP_printk("%s", xhci_decode_ep_context(__entry->info,
  308. __entry->info2, __entry->deq, __entry->tx_info)
  309. )
  310. );
  311. DEFINE_EVENT(xhci_log_ep_ctx, xhci_handle_cmd_stop_ep,
  312. TP_PROTO(struct xhci_ep_ctx *ctx),
  313. TP_ARGS(ctx)
  314. );
  315. DEFINE_EVENT(xhci_log_ep_ctx, xhci_handle_cmd_set_deq_ep,
  316. TP_PROTO(struct xhci_ep_ctx *ctx),
  317. TP_ARGS(ctx)
  318. );
  319. DEFINE_EVENT(xhci_log_ep_ctx, xhci_handle_cmd_reset_ep,
  320. TP_PROTO(struct xhci_ep_ctx *ctx),
  321. TP_ARGS(ctx)
  322. );
  323. DEFINE_EVENT(xhci_log_ep_ctx, xhci_handle_cmd_config_ep,
  324. TP_PROTO(struct xhci_ep_ctx *ctx),
  325. TP_ARGS(ctx)
  326. );
  327. DECLARE_EVENT_CLASS(xhci_log_slot_ctx,
  328. TP_PROTO(struct xhci_slot_ctx *ctx),
  329. TP_ARGS(ctx),
  330. TP_STRUCT__entry(
  331. __field(u32, info)
  332. __field(u32, info2)
  333. __field(u32, tt_info)
  334. __field(u32, state)
  335. ),
  336. TP_fast_assign(
  337. __entry->info = le32_to_cpu(ctx->dev_info);
  338. __entry->info2 = le32_to_cpu(ctx->dev_info2);
  339. __entry->tt_info = le64_to_cpu(ctx->tt_info);
  340. __entry->state = le32_to_cpu(ctx->dev_state);
  341. ),
  342. TP_printk("%s", xhci_decode_slot_context(__entry->info,
  343. __entry->info2, __entry->tt_info,
  344. __entry->state)
  345. )
  346. );
  347. DEFINE_EVENT(xhci_log_slot_ctx, xhci_alloc_dev,
  348. TP_PROTO(struct xhci_slot_ctx *ctx),
  349. TP_ARGS(ctx)
  350. );
  351. DEFINE_EVENT(xhci_log_slot_ctx, xhci_free_dev,
  352. TP_PROTO(struct xhci_slot_ctx *ctx),
  353. TP_ARGS(ctx)
  354. );
  355. DEFINE_EVENT(xhci_log_slot_ctx, xhci_handle_cmd_disable_slot,
  356. TP_PROTO(struct xhci_slot_ctx *ctx),
  357. TP_ARGS(ctx)
  358. );
  359. DEFINE_EVENT(xhci_log_slot_ctx, xhci_discover_or_reset_device,
  360. TP_PROTO(struct xhci_slot_ctx *ctx),
  361. TP_ARGS(ctx)
  362. );
  363. DEFINE_EVENT(xhci_log_slot_ctx, xhci_setup_device_slot,
  364. TP_PROTO(struct xhci_slot_ctx *ctx),
  365. TP_ARGS(ctx)
  366. );
  367. DEFINE_EVENT(xhci_log_slot_ctx, xhci_handle_cmd_addr_dev,
  368. TP_PROTO(struct xhci_slot_ctx *ctx),
  369. TP_ARGS(ctx)
  370. );
  371. DEFINE_EVENT(xhci_log_slot_ctx, xhci_handle_cmd_reset_dev,
  372. TP_PROTO(struct xhci_slot_ctx *ctx),
  373. TP_ARGS(ctx)
  374. );
  375. DEFINE_EVENT(xhci_log_slot_ctx, xhci_handle_cmd_set_deq,
  376. TP_PROTO(struct xhci_slot_ctx *ctx),
  377. TP_ARGS(ctx)
  378. );
  379. DEFINE_EVENT(xhci_log_slot_ctx, xhci_configure_endpoint,
  380. TP_PROTO(struct xhci_slot_ctx *ctx),
  381. TP_ARGS(ctx)
  382. );
  383. DECLARE_EVENT_CLASS(xhci_log_ring,
  384. TP_PROTO(struct xhci_ring *ring),
  385. TP_ARGS(ring),
  386. TP_STRUCT__entry(
  387. __field(u32, type)
  388. __field(void *, ring)
  389. __field(dma_addr_t, enq)
  390. __field(dma_addr_t, deq)
  391. __field(dma_addr_t, enq_seg)
  392. __field(dma_addr_t, deq_seg)
  393. __field(unsigned int, num_segs)
  394. __field(unsigned int, stream_id)
  395. __field(unsigned int, cycle_state)
  396. __field(unsigned int, num_trbs_free)
  397. __field(unsigned int, bounce_buf_len)
  398. ),
  399. TP_fast_assign(
  400. __entry->ring = ring;
  401. __entry->type = ring->type;
  402. __entry->num_segs = ring->num_segs;
  403. __entry->stream_id = ring->stream_id;
  404. __entry->enq_seg = ring->enq_seg->dma;
  405. __entry->deq_seg = ring->deq_seg->dma;
  406. __entry->cycle_state = ring->cycle_state;
  407. __entry->num_trbs_free = ring->num_trbs_free;
  408. __entry->bounce_buf_len = ring->bounce_buf_len;
  409. __entry->enq = xhci_trb_virt_to_dma(ring->enq_seg, ring->enqueue);
  410. __entry->deq = xhci_trb_virt_to_dma(ring->deq_seg, ring->dequeue);
  411. ),
  412. TP_printk("%s %p: enq %pad(%pad) deq %pad(%pad) segs %d stream %d free_trbs %d bounce %d cycle %d",
  413. xhci_ring_type_string(__entry->type), __entry->ring,
  414. &__entry->enq, &__entry->enq_seg,
  415. &__entry->deq, &__entry->deq_seg,
  416. __entry->num_segs,
  417. __entry->stream_id,
  418. __entry->num_trbs_free,
  419. __entry->bounce_buf_len,
  420. __entry->cycle_state
  421. )
  422. );
  423. DEFINE_EVENT(xhci_log_ring, xhci_ring_alloc,
  424. TP_PROTO(struct xhci_ring *ring),
  425. TP_ARGS(ring)
  426. );
  427. DEFINE_EVENT(xhci_log_ring, xhci_ring_free,
  428. TP_PROTO(struct xhci_ring *ring),
  429. TP_ARGS(ring)
  430. );
  431. DEFINE_EVENT(xhci_log_ring, xhci_ring_expansion,
  432. TP_PROTO(struct xhci_ring *ring),
  433. TP_ARGS(ring)
  434. );
  435. DEFINE_EVENT(xhci_log_ring, xhci_inc_enq,
  436. TP_PROTO(struct xhci_ring *ring),
  437. TP_ARGS(ring)
  438. );
  439. DEFINE_EVENT(xhci_log_ring, xhci_inc_deq,
  440. TP_PROTO(struct xhci_ring *ring),
  441. TP_ARGS(ring)
  442. );
  443. DECLARE_EVENT_CLASS(xhci_log_portsc,
  444. TP_PROTO(u32 portnum, u32 portsc),
  445. TP_ARGS(portnum, portsc),
  446. TP_STRUCT__entry(
  447. __field(u32, portnum)
  448. __field(u32, portsc)
  449. ),
  450. TP_fast_assign(
  451. __entry->portnum = portnum;
  452. __entry->portsc = portsc;
  453. ),
  454. TP_printk("port-%d: %s",
  455. __entry->portnum,
  456. xhci_decode_portsc(__entry->portsc)
  457. )
  458. );
  459. DEFINE_EVENT(xhci_log_portsc, xhci_handle_port_status,
  460. TP_PROTO(u32 portnum, u32 portsc),
  461. TP_ARGS(portnum, portsc)
  462. );
  463. DEFINE_EVENT(xhci_log_portsc, xhci_get_port_status,
  464. TP_PROTO(u32 portnum, u32 portsc),
  465. TP_ARGS(portnum, portsc)
  466. );
  467. DEFINE_EVENT(xhci_log_portsc, xhci_hub_status_data,
  468. TP_PROTO(u32 portnum, u32 portsc),
  469. TP_ARGS(portnum, portsc)
  470. );
  471. DECLARE_EVENT_CLASS(xhci_dbc_log_request,
  472. TP_PROTO(struct dbc_request *req),
  473. TP_ARGS(req),
  474. TP_STRUCT__entry(
  475. __field(struct dbc_request *, req)
  476. __field(bool, dir)
  477. __field(unsigned int, actual)
  478. __field(unsigned int, length)
  479. __field(int, status)
  480. ),
  481. TP_fast_assign(
  482. __entry->req = req;
  483. __entry->dir = req->direction;
  484. __entry->actual = req->actual;
  485. __entry->length = req->length;
  486. __entry->status = req->status;
  487. ),
  488. TP_printk("%s: req %p length %u/%u ==> %d",
  489. __entry->dir ? "bulk-in" : "bulk-out",
  490. __entry->req, __entry->actual,
  491. __entry->length, __entry->status
  492. )
  493. );
  494. DEFINE_EVENT(xhci_dbc_log_request, xhci_dbc_alloc_request,
  495. TP_PROTO(struct dbc_request *req),
  496. TP_ARGS(req)
  497. );
  498. DEFINE_EVENT(xhci_dbc_log_request, xhci_dbc_free_request,
  499. TP_PROTO(struct dbc_request *req),
  500. TP_ARGS(req)
  501. );
  502. DEFINE_EVENT(xhci_dbc_log_request, xhci_dbc_queue_request,
  503. TP_PROTO(struct dbc_request *req),
  504. TP_ARGS(req)
  505. );
  506. DEFINE_EVENT(xhci_dbc_log_request, xhci_dbc_giveback_request,
  507. TP_PROTO(struct dbc_request *req),
  508. TP_ARGS(req)
  509. );
  510. #endif /* __XHCI_TRACE_H */
  511. /* this part must be outside header guard */
  512. #undef TRACE_INCLUDE_PATH
  513. #define TRACE_INCLUDE_PATH .
  514. #undef TRACE_INCLUDE_FILE
  515. #define TRACE_INCLUDE_FILE xhci-trace
  516. #include <trace/define_trace.h>