be_cmds.c 65 KB

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  1. /*
  2. * Copyright (C) 2005 - 2011 Emulex
  3. * All rights reserved.
  4. *
  5. * This program is free software; you can redistribute it and/or
  6. * modify it under the terms of the GNU General Public License version 2
  7. * as published by the Free Software Foundation. The full GNU General
  8. * Public License is included in this distribution in the file called COPYING.
  9. *
  10. * Contact Information:
  11. * linux-drivers@emulex.com
  12. *
  13. * Emulex
  14. * 3333 Susan Street
  15. * Costa Mesa, CA 92626
  16. */
  17. #include <linux/module.h>
  18. #include "be.h"
  19. #include "be_cmds.h"
  20. /* Must be a power of 2 or else MODULO will BUG_ON */
  21. static int be_get_temp_freq = 64;
  22. static inline void *embedded_payload(struct be_mcc_wrb *wrb)
  23. {
  24. return wrb->payload.embedded_payload;
  25. }
  26. static void be_mcc_notify(struct be_adapter *adapter)
  27. {
  28. struct be_queue_info *mccq = &adapter->mcc_obj.q;
  29. u32 val = 0;
  30. if (be_error(adapter))
  31. return;
  32. val |= mccq->id & DB_MCCQ_RING_ID_MASK;
  33. val |= 1 << DB_MCCQ_NUM_POSTED_SHIFT;
  34. wmb();
  35. iowrite32(val, adapter->db + DB_MCCQ_OFFSET);
  36. }
  37. /* To check if valid bit is set, check the entire word as we don't know
  38. * the endianness of the data (old entry is host endian while a new entry is
  39. * little endian) */
  40. static inline bool be_mcc_compl_is_new(struct be_mcc_compl *compl)
  41. {
  42. if (compl->flags != 0) {
  43. compl->flags = le32_to_cpu(compl->flags);
  44. BUG_ON((compl->flags & CQE_FLAGS_VALID_MASK) == 0);
  45. return true;
  46. } else {
  47. return false;
  48. }
  49. }
  50. /* Need to reset the entire word that houses the valid bit */
  51. static inline void be_mcc_compl_use(struct be_mcc_compl *compl)
  52. {
  53. compl->flags = 0;
  54. }
  55. static struct be_cmd_resp_hdr *be_decode_resp_hdr(u32 tag0, u32 tag1)
  56. {
  57. unsigned long addr;
  58. addr = tag1;
  59. addr = ((addr << 16) << 16) | tag0;
  60. return (void *)addr;
  61. }
  62. static int be_mcc_compl_process(struct be_adapter *adapter,
  63. struct be_mcc_compl *compl)
  64. {
  65. u16 compl_status, extd_status;
  66. struct be_cmd_resp_hdr *resp_hdr;
  67. u8 opcode = 0, subsystem = 0;
  68. /* Just swap the status to host endian; mcc tag is opaquely copied
  69. * from mcc_wrb */
  70. be_dws_le_to_cpu(compl, 4);
  71. compl_status = (compl->status >> CQE_STATUS_COMPL_SHIFT) &
  72. CQE_STATUS_COMPL_MASK;
  73. resp_hdr = be_decode_resp_hdr(compl->tag0, compl->tag1);
  74. if (resp_hdr) {
  75. opcode = resp_hdr->opcode;
  76. subsystem = resp_hdr->subsystem;
  77. }
  78. if (((opcode == OPCODE_COMMON_WRITE_FLASHROM) ||
  79. (opcode == OPCODE_COMMON_WRITE_OBJECT)) &&
  80. (subsystem == CMD_SUBSYSTEM_COMMON)) {
  81. adapter->flash_status = compl_status;
  82. complete(&adapter->flash_compl);
  83. }
  84. if (compl_status == MCC_STATUS_SUCCESS) {
  85. if (((opcode == OPCODE_ETH_GET_STATISTICS) ||
  86. (opcode == OPCODE_ETH_GET_PPORT_STATS)) &&
  87. (subsystem == CMD_SUBSYSTEM_ETH)) {
  88. be_parse_stats(adapter);
  89. adapter->stats_cmd_sent = false;
  90. }
  91. if (opcode == OPCODE_COMMON_GET_CNTL_ADDITIONAL_ATTRIBUTES &&
  92. subsystem == CMD_SUBSYSTEM_COMMON) {
  93. struct be_cmd_resp_get_cntl_addnl_attribs *resp =
  94. (void *)resp_hdr;
  95. adapter->drv_stats.be_on_die_temperature =
  96. resp->on_die_temperature;
  97. }
  98. } else {
  99. if (opcode == OPCODE_COMMON_GET_CNTL_ADDITIONAL_ATTRIBUTES)
  100. be_get_temp_freq = 0;
  101. if (compl_status == MCC_STATUS_NOT_SUPPORTED ||
  102. compl_status == MCC_STATUS_ILLEGAL_REQUEST)
  103. goto done;
  104. if (compl_status == MCC_STATUS_UNAUTHORIZED_REQUEST) {
  105. dev_warn(&adapter->pdev->dev, "This domain(VM) is not "
  106. "permitted to execute this cmd (opcode %d)\n",
  107. opcode);
  108. } else {
  109. extd_status = (compl->status >> CQE_STATUS_EXTD_SHIFT) &
  110. CQE_STATUS_EXTD_MASK;
  111. dev_err(&adapter->pdev->dev, "Cmd (opcode %d) failed:"
  112. "status %d, extd-status %d\n",
  113. opcode, compl_status, extd_status);
  114. }
  115. }
  116. done:
  117. return compl_status;
  118. }
  119. /* Link state evt is a string of bytes; no need for endian swapping */
  120. static void be_async_link_state_process(struct be_adapter *adapter,
  121. struct be_async_event_link_state *evt)
  122. {
  123. /* When link status changes, link speed must be re-queried from FW */
  124. adapter->phy.link_speed = -1;
  125. /* For the initial link status do not rely on the ASYNC event as
  126. * it may not be received in some cases.
  127. */
  128. if (adapter->flags & BE_FLAGS_LINK_STATUS_INIT)
  129. be_link_status_update(adapter, evt->port_link_status);
  130. }
  131. /* Grp5 CoS Priority evt */
  132. static void be_async_grp5_cos_priority_process(struct be_adapter *adapter,
  133. struct be_async_event_grp5_cos_priority *evt)
  134. {
  135. if (evt->valid) {
  136. adapter->vlan_prio_bmap = evt->available_priority_bmap;
  137. adapter->recommended_prio &= ~VLAN_PRIO_MASK;
  138. adapter->recommended_prio =
  139. evt->reco_default_priority << VLAN_PRIO_SHIFT;
  140. }
  141. }
  142. /* Grp5 QOS Speed evt */
  143. static void be_async_grp5_qos_speed_process(struct be_adapter *adapter,
  144. struct be_async_event_grp5_qos_link_speed *evt)
  145. {
  146. if (evt->physical_port == adapter->port_num) {
  147. /* qos_link_speed is in units of 10 Mbps */
  148. adapter->phy.link_speed = evt->qos_link_speed * 10;
  149. }
  150. }
  151. /*Grp5 PVID evt*/
  152. static void be_async_grp5_pvid_state_process(struct be_adapter *adapter,
  153. struct be_async_event_grp5_pvid_state *evt)
  154. {
  155. if (evt->enabled)
  156. adapter->pvid = le16_to_cpu(evt->tag) & VLAN_VID_MASK;
  157. else
  158. adapter->pvid = 0;
  159. }
  160. static void be_async_grp5_evt_process(struct be_adapter *adapter,
  161. u32 trailer, struct be_mcc_compl *evt)
  162. {
  163. u8 event_type = 0;
  164. event_type = (trailer >> ASYNC_TRAILER_EVENT_TYPE_SHIFT) &
  165. ASYNC_TRAILER_EVENT_TYPE_MASK;
  166. switch (event_type) {
  167. case ASYNC_EVENT_COS_PRIORITY:
  168. be_async_grp5_cos_priority_process(adapter,
  169. (struct be_async_event_grp5_cos_priority *)evt);
  170. break;
  171. case ASYNC_EVENT_QOS_SPEED:
  172. be_async_grp5_qos_speed_process(adapter,
  173. (struct be_async_event_grp5_qos_link_speed *)evt);
  174. break;
  175. case ASYNC_EVENT_PVID_STATE:
  176. be_async_grp5_pvid_state_process(adapter,
  177. (struct be_async_event_grp5_pvid_state *)evt);
  178. break;
  179. default:
  180. dev_warn(&adapter->pdev->dev, "Unknown grp5 event!\n");
  181. break;
  182. }
  183. }
  184. static inline bool is_link_state_evt(u32 trailer)
  185. {
  186. return ((trailer >> ASYNC_TRAILER_EVENT_CODE_SHIFT) &
  187. ASYNC_TRAILER_EVENT_CODE_MASK) ==
  188. ASYNC_EVENT_CODE_LINK_STATE;
  189. }
  190. static inline bool is_grp5_evt(u32 trailer)
  191. {
  192. return (((trailer >> ASYNC_TRAILER_EVENT_CODE_SHIFT) &
  193. ASYNC_TRAILER_EVENT_CODE_MASK) ==
  194. ASYNC_EVENT_CODE_GRP_5);
  195. }
  196. static struct be_mcc_compl *be_mcc_compl_get(struct be_adapter *adapter)
  197. {
  198. struct be_queue_info *mcc_cq = &adapter->mcc_obj.cq;
  199. struct be_mcc_compl *compl = queue_tail_node(mcc_cq);
  200. if (be_mcc_compl_is_new(compl)) {
  201. queue_tail_inc(mcc_cq);
  202. return compl;
  203. }
  204. return NULL;
  205. }
  206. void be_async_mcc_enable(struct be_adapter *adapter)
  207. {
  208. spin_lock_bh(&adapter->mcc_cq_lock);
  209. be_cq_notify(adapter, adapter->mcc_obj.cq.id, true, 0);
  210. adapter->mcc_obj.rearm_cq = true;
  211. spin_unlock_bh(&adapter->mcc_cq_lock);
  212. }
  213. void be_async_mcc_disable(struct be_adapter *adapter)
  214. {
  215. adapter->mcc_obj.rearm_cq = false;
  216. }
  217. int be_process_mcc(struct be_adapter *adapter)
  218. {
  219. struct be_mcc_compl *compl;
  220. int num = 0, status = 0;
  221. struct be_mcc_obj *mcc_obj = &adapter->mcc_obj;
  222. spin_lock_bh(&adapter->mcc_cq_lock);
  223. while ((compl = be_mcc_compl_get(adapter))) {
  224. if (compl->flags & CQE_FLAGS_ASYNC_MASK) {
  225. /* Interpret flags as an async trailer */
  226. if (is_link_state_evt(compl->flags))
  227. be_async_link_state_process(adapter,
  228. (struct be_async_event_link_state *) compl);
  229. else if (is_grp5_evt(compl->flags))
  230. be_async_grp5_evt_process(adapter,
  231. compl->flags, compl);
  232. } else if (compl->flags & CQE_FLAGS_COMPLETED_MASK) {
  233. status = be_mcc_compl_process(adapter, compl);
  234. atomic_dec(&mcc_obj->q.used);
  235. }
  236. be_mcc_compl_use(compl);
  237. num++;
  238. }
  239. if (num)
  240. be_cq_notify(adapter, mcc_obj->cq.id, mcc_obj->rearm_cq, num);
  241. spin_unlock_bh(&adapter->mcc_cq_lock);
  242. return status;
  243. }
  244. /* Wait till no more pending mcc requests are present */
  245. static int be_mcc_wait_compl(struct be_adapter *adapter)
  246. {
  247. #define mcc_timeout 120000 /* 12s timeout */
  248. int i, status = 0;
  249. struct be_mcc_obj *mcc_obj = &adapter->mcc_obj;
  250. for (i = 0; i < mcc_timeout; i++) {
  251. if (be_error(adapter))
  252. return -EIO;
  253. status = be_process_mcc(adapter);
  254. if (atomic_read(&mcc_obj->q.used) == 0)
  255. break;
  256. udelay(100);
  257. }
  258. if (i == mcc_timeout) {
  259. dev_err(&adapter->pdev->dev, "FW not responding\n");
  260. adapter->fw_timeout = true;
  261. return -EIO;
  262. }
  263. return status;
  264. }
  265. /* Notify MCC requests and wait for completion */
  266. static int be_mcc_notify_wait(struct be_adapter *adapter)
  267. {
  268. int status;
  269. struct be_mcc_wrb *wrb;
  270. struct be_mcc_obj *mcc_obj = &adapter->mcc_obj;
  271. u16 index = mcc_obj->q.head;
  272. struct be_cmd_resp_hdr *resp;
  273. index_dec(&index, mcc_obj->q.len);
  274. wrb = queue_index_node(&mcc_obj->q, index);
  275. resp = be_decode_resp_hdr(wrb->tag0, wrb->tag1);
  276. be_mcc_notify(adapter);
  277. status = be_mcc_wait_compl(adapter);
  278. if (status == -EIO)
  279. goto out;
  280. status = resp->status;
  281. out:
  282. return status;
  283. }
  284. static int be_mbox_db_ready_wait(struct be_adapter *adapter, void __iomem *db)
  285. {
  286. int msecs = 0;
  287. u32 ready;
  288. do {
  289. if (be_error(adapter))
  290. return -EIO;
  291. ready = ioread32(db);
  292. if (ready == 0xffffffff)
  293. return -1;
  294. ready &= MPU_MAILBOX_DB_RDY_MASK;
  295. if (ready)
  296. break;
  297. if (msecs > 4000) {
  298. dev_err(&adapter->pdev->dev, "FW not responding\n");
  299. adapter->fw_timeout = true;
  300. be_detect_dump_ue(adapter);
  301. return -1;
  302. }
  303. msleep(1);
  304. msecs++;
  305. } while (true);
  306. return 0;
  307. }
  308. /*
  309. * Insert the mailbox address into the doorbell in two steps
  310. * Polls on the mbox doorbell till a command completion (or a timeout) occurs
  311. */
  312. static int be_mbox_notify_wait(struct be_adapter *adapter)
  313. {
  314. int status;
  315. u32 val = 0;
  316. void __iomem *db = adapter->db + MPU_MAILBOX_DB_OFFSET;
  317. struct be_dma_mem *mbox_mem = &adapter->mbox_mem;
  318. struct be_mcc_mailbox *mbox = mbox_mem->va;
  319. struct be_mcc_compl *compl = &mbox->compl;
  320. /* wait for ready to be set */
  321. status = be_mbox_db_ready_wait(adapter, db);
  322. if (status != 0)
  323. return status;
  324. val |= MPU_MAILBOX_DB_HI_MASK;
  325. /* at bits 2 - 31 place mbox dma addr msb bits 34 - 63 */
  326. val |= (upper_32_bits(mbox_mem->dma) >> 2) << 2;
  327. iowrite32(val, db);
  328. /* wait for ready to be set */
  329. status = be_mbox_db_ready_wait(adapter, db);
  330. if (status != 0)
  331. return status;
  332. val = 0;
  333. /* at bits 2 - 31 place mbox dma addr lsb bits 4 - 33 */
  334. val |= (u32)(mbox_mem->dma >> 4) << 2;
  335. iowrite32(val, db);
  336. status = be_mbox_db_ready_wait(adapter, db);
  337. if (status != 0)
  338. return status;
  339. /* A cq entry has been made now */
  340. if (be_mcc_compl_is_new(compl)) {
  341. status = be_mcc_compl_process(adapter, &mbox->compl);
  342. be_mcc_compl_use(compl);
  343. if (status)
  344. return status;
  345. } else {
  346. dev_err(&adapter->pdev->dev, "invalid mailbox completion\n");
  347. return -1;
  348. }
  349. return 0;
  350. }
  351. static int be_POST_stage_get(struct be_adapter *adapter, u16 *stage)
  352. {
  353. u32 sem;
  354. if (lancer_chip(adapter))
  355. sem = ioread32(adapter->db + MPU_EP_SEMAPHORE_IF_TYPE2_OFFSET);
  356. else
  357. sem = ioread32(adapter->csr + MPU_EP_SEMAPHORE_OFFSET);
  358. *stage = sem & EP_SEMAPHORE_POST_STAGE_MASK;
  359. if ((sem >> EP_SEMAPHORE_POST_ERR_SHIFT) & EP_SEMAPHORE_POST_ERR_MASK)
  360. return -1;
  361. else
  362. return 0;
  363. }
  364. int be_cmd_POST(struct be_adapter *adapter)
  365. {
  366. u16 stage;
  367. int status, timeout = 0;
  368. struct device *dev = &adapter->pdev->dev;
  369. do {
  370. status = be_POST_stage_get(adapter, &stage);
  371. if (status) {
  372. dev_err(dev, "POST error; stage=0x%x\n", stage);
  373. return -1;
  374. } else if (stage != POST_STAGE_ARMFW_RDY) {
  375. if (msleep_interruptible(2000)) {
  376. dev_err(dev, "Waiting for POST aborted\n");
  377. return -EINTR;
  378. }
  379. timeout += 2;
  380. } else {
  381. return 0;
  382. }
  383. } while (timeout < 60);
  384. dev_err(dev, "POST timeout; stage=0x%x\n", stage);
  385. return -1;
  386. }
  387. static inline struct be_sge *nonembedded_sgl(struct be_mcc_wrb *wrb)
  388. {
  389. return &wrb->payload.sgl[0];
  390. }
  391. /* Don't touch the hdr after it's prepared */
  392. /* mem will be NULL for embedded commands */
  393. static void be_wrb_cmd_hdr_prepare(struct be_cmd_req_hdr *req_hdr,
  394. u8 subsystem, u8 opcode, int cmd_len,
  395. struct be_mcc_wrb *wrb, struct be_dma_mem *mem)
  396. {
  397. struct be_sge *sge;
  398. unsigned long addr = (unsigned long)req_hdr;
  399. u64 req_addr = addr;
  400. req_hdr->opcode = opcode;
  401. req_hdr->subsystem = subsystem;
  402. req_hdr->request_length = cpu_to_le32(cmd_len - sizeof(*req_hdr));
  403. req_hdr->version = 0;
  404. wrb->tag0 = req_addr & 0xFFFFFFFF;
  405. wrb->tag1 = upper_32_bits(req_addr);
  406. wrb->payload_length = cmd_len;
  407. if (mem) {
  408. wrb->embedded |= (1 & MCC_WRB_SGE_CNT_MASK) <<
  409. MCC_WRB_SGE_CNT_SHIFT;
  410. sge = nonembedded_sgl(wrb);
  411. sge->pa_hi = cpu_to_le32(upper_32_bits(mem->dma));
  412. sge->pa_lo = cpu_to_le32(mem->dma & 0xFFFFFFFF);
  413. sge->len = cpu_to_le32(mem->size);
  414. } else
  415. wrb->embedded |= MCC_WRB_EMBEDDED_MASK;
  416. be_dws_cpu_to_le(wrb, 8);
  417. }
  418. static void be_cmd_page_addrs_prepare(struct phys_addr *pages, u32 max_pages,
  419. struct be_dma_mem *mem)
  420. {
  421. int i, buf_pages = min(PAGES_4K_SPANNED(mem->va, mem->size), max_pages);
  422. u64 dma = (u64)mem->dma;
  423. for (i = 0; i < buf_pages; i++) {
  424. pages[i].lo = cpu_to_le32(dma & 0xFFFFFFFF);
  425. pages[i].hi = cpu_to_le32(upper_32_bits(dma));
  426. dma += PAGE_SIZE_4K;
  427. }
  428. }
  429. /* Converts interrupt delay in microseconds to multiplier value */
  430. static u32 eq_delay_to_mult(u32 usec_delay)
  431. {
  432. #define MAX_INTR_RATE 651042
  433. const u32 round = 10;
  434. u32 multiplier;
  435. if (usec_delay == 0)
  436. multiplier = 0;
  437. else {
  438. u32 interrupt_rate = 1000000 / usec_delay;
  439. /* Max delay, corresponding to the lowest interrupt rate */
  440. if (interrupt_rate == 0)
  441. multiplier = 1023;
  442. else {
  443. multiplier = (MAX_INTR_RATE - interrupt_rate) * round;
  444. multiplier /= interrupt_rate;
  445. /* Round the multiplier to the closest value.*/
  446. multiplier = (multiplier + round/2) / round;
  447. multiplier = min(multiplier, (u32)1023);
  448. }
  449. }
  450. return multiplier;
  451. }
  452. static inline struct be_mcc_wrb *wrb_from_mbox(struct be_adapter *adapter)
  453. {
  454. struct be_dma_mem *mbox_mem = &adapter->mbox_mem;
  455. struct be_mcc_wrb *wrb
  456. = &((struct be_mcc_mailbox *)(mbox_mem->va))->wrb;
  457. memset(wrb, 0, sizeof(*wrb));
  458. return wrb;
  459. }
  460. static struct be_mcc_wrb *wrb_from_mccq(struct be_adapter *adapter)
  461. {
  462. struct be_queue_info *mccq = &adapter->mcc_obj.q;
  463. struct be_mcc_wrb *wrb;
  464. if (atomic_read(&mccq->used) >= mccq->len) {
  465. dev_err(&adapter->pdev->dev, "Out of MCCQ wrbs\n");
  466. return NULL;
  467. }
  468. wrb = queue_head_node(mccq);
  469. queue_head_inc(mccq);
  470. atomic_inc(&mccq->used);
  471. memset(wrb, 0, sizeof(*wrb));
  472. return wrb;
  473. }
  474. /* Tell fw we're about to start firing cmds by writing a
  475. * special pattern across the wrb hdr; uses mbox
  476. */
  477. int be_cmd_fw_init(struct be_adapter *adapter)
  478. {
  479. u8 *wrb;
  480. int status;
  481. if (mutex_lock_interruptible(&adapter->mbox_lock))
  482. return -1;
  483. wrb = (u8 *)wrb_from_mbox(adapter);
  484. *wrb++ = 0xFF;
  485. *wrb++ = 0x12;
  486. *wrb++ = 0x34;
  487. *wrb++ = 0xFF;
  488. *wrb++ = 0xFF;
  489. *wrb++ = 0x56;
  490. *wrb++ = 0x78;
  491. *wrb = 0xFF;
  492. status = be_mbox_notify_wait(adapter);
  493. mutex_unlock(&adapter->mbox_lock);
  494. return status;
  495. }
  496. /* Tell fw we're done with firing cmds by writing a
  497. * special pattern across the wrb hdr; uses mbox
  498. */
  499. int be_cmd_fw_clean(struct be_adapter *adapter)
  500. {
  501. u8 *wrb;
  502. int status;
  503. if (mutex_lock_interruptible(&adapter->mbox_lock))
  504. return -1;
  505. wrb = (u8 *)wrb_from_mbox(adapter);
  506. *wrb++ = 0xFF;
  507. *wrb++ = 0xAA;
  508. *wrb++ = 0xBB;
  509. *wrb++ = 0xFF;
  510. *wrb++ = 0xFF;
  511. *wrb++ = 0xCC;
  512. *wrb++ = 0xDD;
  513. *wrb = 0xFF;
  514. status = be_mbox_notify_wait(adapter);
  515. mutex_unlock(&adapter->mbox_lock);
  516. return status;
  517. }
  518. int be_cmd_eq_create(struct be_adapter *adapter,
  519. struct be_queue_info *eq, int eq_delay)
  520. {
  521. struct be_mcc_wrb *wrb;
  522. struct be_cmd_req_eq_create *req;
  523. struct be_dma_mem *q_mem = &eq->dma_mem;
  524. int status;
  525. if (mutex_lock_interruptible(&adapter->mbox_lock))
  526. return -1;
  527. wrb = wrb_from_mbox(adapter);
  528. req = embedded_payload(wrb);
  529. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  530. OPCODE_COMMON_EQ_CREATE, sizeof(*req), wrb, NULL);
  531. req->num_pages = cpu_to_le16(PAGES_4K_SPANNED(q_mem->va, q_mem->size));
  532. AMAP_SET_BITS(struct amap_eq_context, valid, req->context, 1);
  533. /* 4byte eqe*/
  534. AMAP_SET_BITS(struct amap_eq_context, size, req->context, 0);
  535. AMAP_SET_BITS(struct amap_eq_context, count, req->context,
  536. __ilog2_u32(eq->len/256));
  537. AMAP_SET_BITS(struct amap_eq_context, delaymult, req->context,
  538. eq_delay_to_mult(eq_delay));
  539. be_dws_cpu_to_le(req->context, sizeof(req->context));
  540. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  541. status = be_mbox_notify_wait(adapter);
  542. if (!status) {
  543. struct be_cmd_resp_eq_create *resp = embedded_payload(wrb);
  544. eq->id = le16_to_cpu(resp->eq_id);
  545. eq->created = true;
  546. }
  547. mutex_unlock(&adapter->mbox_lock);
  548. return status;
  549. }
  550. /* Use MCC */
  551. int be_cmd_mac_addr_query(struct be_adapter *adapter, u8 *mac_addr,
  552. u8 type, bool permanent, u32 if_handle, u32 pmac_id)
  553. {
  554. struct be_mcc_wrb *wrb;
  555. struct be_cmd_req_mac_query *req;
  556. int status;
  557. spin_lock_bh(&adapter->mcc_lock);
  558. wrb = wrb_from_mccq(adapter);
  559. if (!wrb) {
  560. status = -EBUSY;
  561. goto err;
  562. }
  563. req = embedded_payload(wrb);
  564. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  565. OPCODE_COMMON_NTWK_MAC_QUERY, sizeof(*req), wrb, NULL);
  566. req->type = type;
  567. if (permanent) {
  568. req->permanent = 1;
  569. } else {
  570. req->if_id = cpu_to_le16((u16) if_handle);
  571. req->pmac_id = cpu_to_le32(pmac_id);
  572. req->permanent = 0;
  573. }
  574. status = be_mcc_notify_wait(adapter);
  575. if (!status) {
  576. struct be_cmd_resp_mac_query *resp = embedded_payload(wrb);
  577. memcpy(mac_addr, resp->mac.addr, ETH_ALEN);
  578. }
  579. err:
  580. spin_unlock_bh(&adapter->mcc_lock);
  581. return status;
  582. }
  583. /* Uses synchronous MCCQ */
  584. int be_cmd_pmac_add(struct be_adapter *adapter, u8 *mac_addr,
  585. u32 if_id, u32 *pmac_id, u32 domain)
  586. {
  587. struct be_mcc_wrb *wrb;
  588. struct be_cmd_req_pmac_add *req;
  589. int status;
  590. spin_lock_bh(&adapter->mcc_lock);
  591. wrb = wrb_from_mccq(adapter);
  592. if (!wrb) {
  593. status = -EBUSY;
  594. goto err;
  595. }
  596. req = embedded_payload(wrb);
  597. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  598. OPCODE_COMMON_NTWK_PMAC_ADD, sizeof(*req), wrb, NULL);
  599. req->hdr.domain = domain;
  600. req->if_id = cpu_to_le32(if_id);
  601. memcpy(req->mac_address, mac_addr, ETH_ALEN);
  602. status = be_mcc_notify_wait(adapter);
  603. if (!status) {
  604. struct be_cmd_resp_pmac_add *resp = embedded_payload(wrb);
  605. *pmac_id = le32_to_cpu(resp->pmac_id);
  606. }
  607. err:
  608. spin_unlock_bh(&adapter->mcc_lock);
  609. if (status == MCC_STATUS_UNAUTHORIZED_REQUEST)
  610. status = -EPERM;
  611. return status;
  612. }
  613. /* Uses synchronous MCCQ */
  614. int be_cmd_pmac_del(struct be_adapter *adapter, u32 if_id, int pmac_id, u32 dom)
  615. {
  616. struct be_mcc_wrb *wrb;
  617. struct be_cmd_req_pmac_del *req;
  618. int status;
  619. if (pmac_id == -1)
  620. return 0;
  621. spin_lock_bh(&adapter->mcc_lock);
  622. wrb = wrb_from_mccq(adapter);
  623. if (!wrb) {
  624. status = -EBUSY;
  625. goto err;
  626. }
  627. req = embedded_payload(wrb);
  628. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  629. OPCODE_COMMON_NTWK_PMAC_DEL, sizeof(*req), wrb, NULL);
  630. req->hdr.domain = dom;
  631. req->if_id = cpu_to_le32(if_id);
  632. req->pmac_id = cpu_to_le32(pmac_id);
  633. status = be_mcc_notify_wait(adapter);
  634. err:
  635. spin_unlock_bh(&adapter->mcc_lock);
  636. return status;
  637. }
  638. /* Uses Mbox */
  639. int be_cmd_cq_create(struct be_adapter *adapter, struct be_queue_info *cq,
  640. struct be_queue_info *eq, bool no_delay, int coalesce_wm)
  641. {
  642. struct be_mcc_wrb *wrb;
  643. struct be_cmd_req_cq_create *req;
  644. struct be_dma_mem *q_mem = &cq->dma_mem;
  645. void *ctxt;
  646. int status;
  647. if (mutex_lock_interruptible(&adapter->mbox_lock))
  648. return -1;
  649. wrb = wrb_from_mbox(adapter);
  650. req = embedded_payload(wrb);
  651. ctxt = &req->context;
  652. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  653. OPCODE_COMMON_CQ_CREATE, sizeof(*req), wrb, NULL);
  654. req->num_pages = cpu_to_le16(PAGES_4K_SPANNED(q_mem->va, q_mem->size));
  655. if (lancer_chip(adapter)) {
  656. req->hdr.version = 2;
  657. req->page_size = 1; /* 1 for 4K */
  658. AMAP_SET_BITS(struct amap_cq_context_lancer, nodelay, ctxt,
  659. no_delay);
  660. AMAP_SET_BITS(struct amap_cq_context_lancer, count, ctxt,
  661. __ilog2_u32(cq->len/256));
  662. AMAP_SET_BITS(struct amap_cq_context_lancer, valid, ctxt, 1);
  663. AMAP_SET_BITS(struct amap_cq_context_lancer, eventable,
  664. ctxt, 1);
  665. AMAP_SET_BITS(struct amap_cq_context_lancer, eqid,
  666. ctxt, eq->id);
  667. } else {
  668. AMAP_SET_BITS(struct amap_cq_context_be, coalescwm, ctxt,
  669. coalesce_wm);
  670. AMAP_SET_BITS(struct amap_cq_context_be, nodelay,
  671. ctxt, no_delay);
  672. AMAP_SET_BITS(struct amap_cq_context_be, count, ctxt,
  673. __ilog2_u32(cq->len/256));
  674. AMAP_SET_BITS(struct amap_cq_context_be, valid, ctxt, 1);
  675. AMAP_SET_BITS(struct amap_cq_context_be, eventable, ctxt, 1);
  676. AMAP_SET_BITS(struct amap_cq_context_be, eqid, ctxt, eq->id);
  677. }
  678. be_dws_cpu_to_le(ctxt, sizeof(req->context));
  679. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  680. status = be_mbox_notify_wait(adapter);
  681. if (!status) {
  682. struct be_cmd_resp_cq_create *resp = embedded_payload(wrb);
  683. cq->id = le16_to_cpu(resp->cq_id);
  684. cq->created = true;
  685. }
  686. mutex_unlock(&adapter->mbox_lock);
  687. return status;
  688. }
  689. static u32 be_encoded_q_len(int q_len)
  690. {
  691. u32 len_encoded = fls(q_len); /* log2(len) + 1 */
  692. if (len_encoded == 16)
  693. len_encoded = 0;
  694. return len_encoded;
  695. }
  696. int be_cmd_mccq_ext_create(struct be_adapter *adapter,
  697. struct be_queue_info *mccq,
  698. struct be_queue_info *cq)
  699. {
  700. struct be_mcc_wrb *wrb;
  701. struct be_cmd_req_mcc_ext_create *req;
  702. struct be_dma_mem *q_mem = &mccq->dma_mem;
  703. void *ctxt;
  704. int status;
  705. if (mutex_lock_interruptible(&adapter->mbox_lock))
  706. return -1;
  707. wrb = wrb_from_mbox(adapter);
  708. req = embedded_payload(wrb);
  709. ctxt = &req->context;
  710. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  711. OPCODE_COMMON_MCC_CREATE_EXT, sizeof(*req), wrb, NULL);
  712. req->num_pages = cpu_to_le16(PAGES_4K_SPANNED(q_mem->va, q_mem->size));
  713. if (lancer_chip(adapter)) {
  714. req->hdr.version = 1;
  715. req->cq_id = cpu_to_le16(cq->id);
  716. AMAP_SET_BITS(struct amap_mcc_context_lancer, ring_size, ctxt,
  717. be_encoded_q_len(mccq->len));
  718. AMAP_SET_BITS(struct amap_mcc_context_lancer, valid, ctxt, 1);
  719. AMAP_SET_BITS(struct amap_mcc_context_lancer, async_cq_id,
  720. ctxt, cq->id);
  721. AMAP_SET_BITS(struct amap_mcc_context_lancer, async_cq_valid,
  722. ctxt, 1);
  723. } else {
  724. AMAP_SET_BITS(struct amap_mcc_context_be, valid, ctxt, 1);
  725. AMAP_SET_BITS(struct amap_mcc_context_be, ring_size, ctxt,
  726. be_encoded_q_len(mccq->len));
  727. AMAP_SET_BITS(struct amap_mcc_context_be, cq_id, ctxt, cq->id);
  728. }
  729. /* Subscribe to Link State and Group 5 Events(bits 1 and 5 set) */
  730. req->async_event_bitmap[0] = cpu_to_le32(0x00000022);
  731. be_dws_cpu_to_le(ctxt, sizeof(req->context));
  732. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  733. status = be_mbox_notify_wait(adapter);
  734. if (!status) {
  735. struct be_cmd_resp_mcc_create *resp = embedded_payload(wrb);
  736. mccq->id = le16_to_cpu(resp->id);
  737. mccq->created = true;
  738. }
  739. mutex_unlock(&adapter->mbox_lock);
  740. return status;
  741. }
  742. int be_cmd_mccq_org_create(struct be_adapter *adapter,
  743. struct be_queue_info *mccq,
  744. struct be_queue_info *cq)
  745. {
  746. struct be_mcc_wrb *wrb;
  747. struct be_cmd_req_mcc_create *req;
  748. struct be_dma_mem *q_mem = &mccq->dma_mem;
  749. void *ctxt;
  750. int status;
  751. if (mutex_lock_interruptible(&adapter->mbox_lock))
  752. return -1;
  753. wrb = wrb_from_mbox(adapter);
  754. req = embedded_payload(wrb);
  755. ctxt = &req->context;
  756. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  757. OPCODE_COMMON_MCC_CREATE, sizeof(*req), wrb, NULL);
  758. req->num_pages = cpu_to_le16(PAGES_4K_SPANNED(q_mem->va, q_mem->size));
  759. AMAP_SET_BITS(struct amap_mcc_context_be, valid, ctxt, 1);
  760. AMAP_SET_BITS(struct amap_mcc_context_be, ring_size, ctxt,
  761. be_encoded_q_len(mccq->len));
  762. AMAP_SET_BITS(struct amap_mcc_context_be, cq_id, ctxt, cq->id);
  763. be_dws_cpu_to_le(ctxt, sizeof(req->context));
  764. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  765. status = be_mbox_notify_wait(adapter);
  766. if (!status) {
  767. struct be_cmd_resp_mcc_create *resp = embedded_payload(wrb);
  768. mccq->id = le16_to_cpu(resp->id);
  769. mccq->created = true;
  770. }
  771. mutex_unlock(&adapter->mbox_lock);
  772. return status;
  773. }
  774. int be_cmd_mccq_create(struct be_adapter *adapter,
  775. struct be_queue_info *mccq,
  776. struct be_queue_info *cq)
  777. {
  778. int status;
  779. status = be_cmd_mccq_ext_create(adapter, mccq, cq);
  780. if (status && !lancer_chip(adapter)) {
  781. dev_warn(&adapter->pdev->dev, "Upgrade to F/W ver 2.102.235.0 "
  782. "or newer to avoid conflicting priorities between NIC "
  783. "and FCoE traffic");
  784. status = be_cmd_mccq_org_create(adapter, mccq, cq);
  785. }
  786. return status;
  787. }
  788. int be_cmd_txq_create(struct be_adapter *adapter,
  789. struct be_queue_info *txq,
  790. struct be_queue_info *cq)
  791. {
  792. struct be_mcc_wrb *wrb;
  793. struct be_cmd_req_eth_tx_create *req;
  794. struct be_dma_mem *q_mem = &txq->dma_mem;
  795. void *ctxt;
  796. int status;
  797. spin_lock_bh(&adapter->mcc_lock);
  798. wrb = wrb_from_mccq(adapter);
  799. if (!wrb) {
  800. status = -EBUSY;
  801. goto err;
  802. }
  803. req = embedded_payload(wrb);
  804. ctxt = &req->context;
  805. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  806. OPCODE_ETH_TX_CREATE, sizeof(*req), wrb, NULL);
  807. if (lancer_chip(adapter)) {
  808. req->hdr.version = 1;
  809. AMAP_SET_BITS(struct amap_tx_context, if_id, ctxt,
  810. adapter->if_handle);
  811. }
  812. req->num_pages = PAGES_4K_SPANNED(q_mem->va, q_mem->size);
  813. req->ulp_num = BE_ULP1_NUM;
  814. req->type = BE_ETH_TX_RING_TYPE_STANDARD;
  815. AMAP_SET_BITS(struct amap_tx_context, tx_ring_size, ctxt,
  816. be_encoded_q_len(txq->len));
  817. AMAP_SET_BITS(struct amap_tx_context, ctx_valid, ctxt, 1);
  818. AMAP_SET_BITS(struct amap_tx_context, cq_id_send, ctxt, cq->id);
  819. be_dws_cpu_to_le(ctxt, sizeof(req->context));
  820. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  821. status = be_mcc_notify_wait(adapter);
  822. if (!status) {
  823. struct be_cmd_resp_eth_tx_create *resp = embedded_payload(wrb);
  824. txq->id = le16_to_cpu(resp->cid);
  825. txq->created = true;
  826. }
  827. err:
  828. spin_unlock_bh(&adapter->mcc_lock);
  829. return status;
  830. }
  831. /* Uses MCC */
  832. int be_cmd_rxq_create(struct be_adapter *adapter,
  833. struct be_queue_info *rxq, u16 cq_id, u16 frag_size,
  834. u32 if_id, u32 rss, u8 *rss_id)
  835. {
  836. struct be_mcc_wrb *wrb;
  837. struct be_cmd_req_eth_rx_create *req;
  838. struct be_dma_mem *q_mem = &rxq->dma_mem;
  839. int status;
  840. spin_lock_bh(&adapter->mcc_lock);
  841. wrb = wrb_from_mccq(adapter);
  842. if (!wrb) {
  843. status = -EBUSY;
  844. goto err;
  845. }
  846. req = embedded_payload(wrb);
  847. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  848. OPCODE_ETH_RX_CREATE, sizeof(*req), wrb, NULL);
  849. req->cq_id = cpu_to_le16(cq_id);
  850. req->frag_size = fls(frag_size) - 1;
  851. req->num_pages = 2;
  852. be_cmd_page_addrs_prepare(req->pages, ARRAY_SIZE(req->pages), q_mem);
  853. req->interface_id = cpu_to_le32(if_id);
  854. req->max_frame_size = cpu_to_le16(BE_MAX_JUMBO_FRAME_SIZE);
  855. req->rss_queue = cpu_to_le32(rss);
  856. status = be_mcc_notify_wait(adapter);
  857. if (!status) {
  858. struct be_cmd_resp_eth_rx_create *resp = embedded_payload(wrb);
  859. rxq->id = le16_to_cpu(resp->id);
  860. rxq->created = true;
  861. *rss_id = resp->rss_id;
  862. }
  863. err:
  864. spin_unlock_bh(&adapter->mcc_lock);
  865. return status;
  866. }
  867. /* Generic destroyer function for all types of queues
  868. * Uses Mbox
  869. */
  870. int be_cmd_q_destroy(struct be_adapter *adapter, struct be_queue_info *q,
  871. int queue_type)
  872. {
  873. struct be_mcc_wrb *wrb;
  874. struct be_cmd_req_q_destroy *req;
  875. u8 subsys = 0, opcode = 0;
  876. int status;
  877. if (mutex_lock_interruptible(&adapter->mbox_lock))
  878. return -1;
  879. wrb = wrb_from_mbox(adapter);
  880. req = embedded_payload(wrb);
  881. switch (queue_type) {
  882. case QTYPE_EQ:
  883. subsys = CMD_SUBSYSTEM_COMMON;
  884. opcode = OPCODE_COMMON_EQ_DESTROY;
  885. break;
  886. case QTYPE_CQ:
  887. subsys = CMD_SUBSYSTEM_COMMON;
  888. opcode = OPCODE_COMMON_CQ_DESTROY;
  889. break;
  890. case QTYPE_TXQ:
  891. subsys = CMD_SUBSYSTEM_ETH;
  892. opcode = OPCODE_ETH_TX_DESTROY;
  893. break;
  894. case QTYPE_RXQ:
  895. subsys = CMD_SUBSYSTEM_ETH;
  896. opcode = OPCODE_ETH_RX_DESTROY;
  897. break;
  898. case QTYPE_MCCQ:
  899. subsys = CMD_SUBSYSTEM_COMMON;
  900. opcode = OPCODE_COMMON_MCC_DESTROY;
  901. break;
  902. default:
  903. BUG();
  904. }
  905. be_wrb_cmd_hdr_prepare(&req->hdr, subsys, opcode, sizeof(*req), wrb,
  906. NULL);
  907. req->id = cpu_to_le16(q->id);
  908. status = be_mbox_notify_wait(adapter);
  909. if (!status)
  910. q->created = false;
  911. mutex_unlock(&adapter->mbox_lock);
  912. return status;
  913. }
  914. /* Uses MCC */
  915. int be_cmd_rxq_destroy(struct be_adapter *adapter, struct be_queue_info *q)
  916. {
  917. struct be_mcc_wrb *wrb;
  918. struct be_cmd_req_q_destroy *req;
  919. int status;
  920. spin_lock_bh(&adapter->mcc_lock);
  921. wrb = wrb_from_mccq(adapter);
  922. if (!wrb) {
  923. status = -EBUSY;
  924. goto err;
  925. }
  926. req = embedded_payload(wrb);
  927. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  928. OPCODE_ETH_RX_DESTROY, sizeof(*req), wrb, NULL);
  929. req->id = cpu_to_le16(q->id);
  930. status = be_mcc_notify_wait(adapter);
  931. if (!status)
  932. q->created = false;
  933. err:
  934. spin_unlock_bh(&adapter->mcc_lock);
  935. return status;
  936. }
  937. /* Create an rx filtering policy configuration on an i/f
  938. * Uses MCCQ
  939. */
  940. int be_cmd_if_create(struct be_adapter *adapter, u32 cap_flags, u32 en_flags,
  941. u8 *mac, u32 *if_handle, u32 *pmac_id, u32 domain)
  942. {
  943. struct be_mcc_wrb *wrb;
  944. struct be_cmd_req_if_create *req;
  945. int status;
  946. spin_lock_bh(&adapter->mcc_lock);
  947. wrb = wrb_from_mccq(adapter);
  948. if (!wrb) {
  949. status = -EBUSY;
  950. goto err;
  951. }
  952. req = embedded_payload(wrb);
  953. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  954. OPCODE_COMMON_NTWK_INTERFACE_CREATE, sizeof(*req), wrb, NULL);
  955. req->hdr.domain = domain;
  956. req->capability_flags = cpu_to_le32(cap_flags);
  957. req->enable_flags = cpu_to_le32(en_flags);
  958. if (mac)
  959. memcpy(req->mac_addr, mac, ETH_ALEN);
  960. else
  961. req->pmac_invalid = true;
  962. status = be_mcc_notify_wait(adapter);
  963. if (!status) {
  964. struct be_cmd_resp_if_create *resp = embedded_payload(wrb);
  965. *if_handle = le32_to_cpu(resp->interface_id);
  966. if (mac)
  967. *pmac_id = le32_to_cpu(resp->pmac_id);
  968. }
  969. err:
  970. spin_unlock_bh(&adapter->mcc_lock);
  971. return status;
  972. }
  973. /* Uses MCCQ */
  974. int be_cmd_if_destroy(struct be_adapter *adapter, int interface_id, u32 domain)
  975. {
  976. struct be_mcc_wrb *wrb;
  977. struct be_cmd_req_if_destroy *req;
  978. int status;
  979. if (interface_id == -1)
  980. return 0;
  981. spin_lock_bh(&adapter->mcc_lock);
  982. wrb = wrb_from_mccq(adapter);
  983. if (!wrb) {
  984. status = -EBUSY;
  985. goto err;
  986. }
  987. req = embedded_payload(wrb);
  988. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  989. OPCODE_COMMON_NTWK_INTERFACE_DESTROY, sizeof(*req), wrb, NULL);
  990. req->hdr.domain = domain;
  991. req->interface_id = cpu_to_le32(interface_id);
  992. status = be_mcc_notify_wait(adapter);
  993. err:
  994. spin_unlock_bh(&adapter->mcc_lock);
  995. return status;
  996. }
  997. /* Get stats is a non embedded command: the request is not embedded inside
  998. * WRB but is a separate dma memory block
  999. * Uses asynchronous MCC
  1000. */
  1001. int be_cmd_get_stats(struct be_adapter *adapter, struct be_dma_mem *nonemb_cmd)
  1002. {
  1003. struct be_mcc_wrb *wrb;
  1004. struct be_cmd_req_hdr *hdr;
  1005. int status = 0;
  1006. if (MODULO(adapter->work_counter, be_get_temp_freq) == 0)
  1007. be_cmd_get_die_temperature(adapter);
  1008. spin_lock_bh(&adapter->mcc_lock);
  1009. wrb = wrb_from_mccq(adapter);
  1010. if (!wrb) {
  1011. status = -EBUSY;
  1012. goto err;
  1013. }
  1014. hdr = nonemb_cmd->va;
  1015. be_wrb_cmd_hdr_prepare(hdr, CMD_SUBSYSTEM_ETH,
  1016. OPCODE_ETH_GET_STATISTICS, nonemb_cmd->size, wrb, nonemb_cmd);
  1017. if (adapter->generation == BE_GEN3)
  1018. hdr->version = 1;
  1019. be_mcc_notify(adapter);
  1020. adapter->stats_cmd_sent = true;
  1021. err:
  1022. spin_unlock_bh(&adapter->mcc_lock);
  1023. return status;
  1024. }
  1025. /* Lancer Stats */
  1026. int lancer_cmd_get_pport_stats(struct be_adapter *adapter,
  1027. struct be_dma_mem *nonemb_cmd)
  1028. {
  1029. struct be_mcc_wrb *wrb;
  1030. struct lancer_cmd_req_pport_stats *req;
  1031. int status = 0;
  1032. spin_lock_bh(&adapter->mcc_lock);
  1033. wrb = wrb_from_mccq(adapter);
  1034. if (!wrb) {
  1035. status = -EBUSY;
  1036. goto err;
  1037. }
  1038. req = nonemb_cmd->va;
  1039. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  1040. OPCODE_ETH_GET_PPORT_STATS, nonemb_cmd->size, wrb,
  1041. nonemb_cmd);
  1042. req->cmd_params.params.pport_num = cpu_to_le16(adapter->hba_port_num);
  1043. req->cmd_params.params.reset_stats = 0;
  1044. be_mcc_notify(adapter);
  1045. adapter->stats_cmd_sent = true;
  1046. err:
  1047. spin_unlock_bh(&adapter->mcc_lock);
  1048. return status;
  1049. }
  1050. /* Uses synchronous mcc */
  1051. int be_cmd_link_status_query(struct be_adapter *adapter, u8 *mac_speed,
  1052. u16 *link_speed, u8 *link_status, u32 dom)
  1053. {
  1054. struct be_mcc_wrb *wrb;
  1055. struct be_cmd_req_link_status *req;
  1056. int status;
  1057. spin_lock_bh(&adapter->mcc_lock);
  1058. if (link_status)
  1059. *link_status = LINK_DOWN;
  1060. wrb = wrb_from_mccq(adapter);
  1061. if (!wrb) {
  1062. status = -EBUSY;
  1063. goto err;
  1064. }
  1065. req = embedded_payload(wrb);
  1066. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1067. OPCODE_COMMON_NTWK_LINK_STATUS_QUERY, sizeof(*req), wrb, NULL);
  1068. if (adapter->generation == BE_GEN3 || lancer_chip(adapter))
  1069. req->hdr.version = 1;
  1070. req->hdr.domain = dom;
  1071. status = be_mcc_notify_wait(adapter);
  1072. if (!status) {
  1073. struct be_cmd_resp_link_status *resp = embedded_payload(wrb);
  1074. if (resp->mac_speed != PHY_LINK_SPEED_ZERO) {
  1075. if (link_speed)
  1076. *link_speed = le16_to_cpu(resp->link_speed);
  1077. if (mac_speed)
  1078. *mac_speed = resp->mac_speed;
  1079. }
  1080. if (link_status)
  1081. *link_status = resp->logical_link_status;
  1082. }
  1083. err:
  1084. spin_unlock_bh(&adapter->mcc_lock);
  1085. return status;
  1086. }
  1087. /* Uses synchronous mcc */
  1088. int be_cmd_get_die_temperature(struct be_adapter *adapter)
  1089. {
  1090. struct be_mcc_wrb *wrb;
  1091. struct be_cmd_req_get_cntl_addnl_attribs *req;
  1092. int status;
  1093. spin_lock_bh(&adapter->mcc_lock);
  1094. wrb = wrb_from_mccq(adapter);
  1095. if (!wrb) {
  1096. status = -EBUSY;
  1097. goto err;
  1098. }
  1099. req = embedded_payload(wrb);
  1100. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1101. OPCODE_COMMON_GET_CNTL_ADDITIONAL_ATTRIBUTES, sizeof(*req),
  1102. wrb, NULL);
  1103. be_mcc_notify(adapter);
  1104. err:
  1105. spin_unlock_bh(&adapter->mcc_lock);
  1106. return status;
  1107. }
  1108. /* Uses synchronous mcc */
  1109. int be_cmd_get_reg_len(struct be_adapter *adapter, u32 *log_size)
  1110. {
  1111. struct be_mcc_wrb *wrb;
  1112. struct be_cmd_req_get_fat *req;
  1113. int status;
  1114. spin_lock_bh(&adapter->mcc_lock);
  1115. wrb = wrb_from_mccq(adapter);
  1116. if (!wrb) {
  1117. status = -EBUSY;
  1118. goto err;
  1119. }
  1120. req = embedded_payload(wrb);
  1121. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1122. OPCODE_COMMON_MANAGE_FAT, sizeof(*req), wrb, NULL);
  1123. req->fat_operation = cpu_to_le32(QUERY_FAT);
  1124. status = be_mcc_notify_wait(adapter);
  1125. if (!status) {
  1126. struct be_cmd_resp_get_fat *resp = embedded_payload(wrb);
  1127. if (log_size && resp->log_size)
  1128. *log_size = le32_to_cpu(resp->log_size) -
  1129. sizeof(u32);
  1130. }
  1131. err:
  1132. spin_unlock_bh(&adapter->mcc_lock);
  1133. return status;
  1134. }
  1135. void be_cmd_get_regs(struct be_adapter *adapter, u32 buf_len, void *buf)
  1136. {
  1137. struct be_dma_mem get_fat_cmd;
  1138. struct be_mcc_wrb *wrb;
  1139. struct be_cmd_req_get_fat *req;
  1140. u32 offset = 0, total_size, buf_size,
  1141. log_offset = sizeof(u32), payload_len;
  1142. int status;
  1143. if (buf_len == 0)
  1144. return;
  1145. total_size = buf_len;
  1146. get_fat_cmd.size = sizeof(struct be_cmd_req_get_fat) + 60*1024;
  1147. get_fat_cmd.va = pci_alloc_consistent(adapter->pdev,
  1148. get_fat_cmd.size,
  1149. &get_fat_cmd.dma);
  1150. if (!get_fat_cmd.va) {
  1151. status = -ENOMEM;
  1152. dev_err(&adapter->pdev->dev,
  1153. "Memory allocation failure while retrieving FAT data\n");
  1154. return;
  1155. }
  1156. spin_lock_bh(&adapter->mcc_lock);
  1157. while (total_size) {
  1158. buf_size = min(total_size, (u32)60*1024);
  1159. total_size -= buf_size;
  1160. wrb = wrb_from_mccq(adapter);
  1161. if (!wrb) {
  1162. status = -EBUSY;
  1163. goto err;
  1164. }
  1165. req = get_fat_cmd.va;
  1166. payload_len = sizeof(struct be_cmd_req_get_fat) + buf_size;
  1167. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1168. OPCODE_COMMON_MANAGE_FAT, payload_len, wrb,
  1169. &get_fat_cmd);
  1170. req->fat_operation = cpu_to_le32(RETRIEVE_FAT);
  1171. req->read_log_offset = cpu_to_le32(log_offset);
  1172. req->read_log_length = cpu_to_le32(buf_size);
  1173. req->data_buffer_size = cpu_to_le32(buf_size);
  1174. status = be_mcc_notify_wait(adapter);
  1175. if (!status) {
  1176. struct be_cmd_resp_get_fat *resp = get_fat_cmd.va;
  1177. memcpy(buf + offset,
  1178. resp->data_buffer,
  1179. le32_to_cpu(resp->read_log_length));
  1180. } else {
  1181. dev_err(&adapter->pdev->dev, "FAT Table Retrieve error\n");
  1182. goto err;
  1183. }
  1184. offset += buf_size;
  1185. log_offset += buf_size;
  1186. }
  1187. err:
  1188. pci_free_consistent(adapter->pdev, get_fat_cmd.size,
  1189. get_fat_cmd.va,
  1190. get_fat_cmd.dma);
  1191. spin_unlock_bh(&adapter->mcc_lock);
  1192. }
  1193. /* Uses synchronous mcc */
  1194. int be_cmd_get_fw_ver(struct be_adapter *adapter, char *fw_ver,
  1195. char *fw_on_flash)
  1196. {
  1197. struct be_mcc_wrb *wrb;
  1198. struct be_cmd_req_get_fw_version *req;
  1199. int status;
  1200. spin_lock_bh(&adapter->mcc_lock);
  1201. wrb = wrb_from_mccq(adapter);
  1202. if (!wrb) {
  1203. status = -EBUSY;
  1204. goto err;
  1205. }
  1206. req = embedded_payload(wrb);
  1207. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1208. OPCODE_COMMON_GET_FW_VERSION, sizeof(*req), wrb, NULL);
  1209. status = be_mcc_notify_wait(adapter);
  1210. if (!status) {
  1211. struct be_cmd_resp_get_fw_version *resp = embedded_payload(wrb);
  1212. strcpy(fw_ver, resp->firmware_version_string);
  1213. if (fw_on_flash)
  1214. strcpy(fw_on_flash, resp->fw_on_flash_version_string);
  1215. }
  1216. err:
  1217. spin_unlock_bh(&adapter->mcc_lock);
  1218. return status;
  1219. }
  1220. /* set the EQ delay interval of an EQ to specified value
  1221. * Uses async mcc
  1222. */
  1223. int be_cmd_modify_eqd(struct be_adapter *adapter, u32 eq_id, u32 eqd)
  1224. {
  1225. struct be_mcc_wrb *wrb;
  1226. struct be_cmd_req_modify_eq_delay *req;
  1227. int status = 0;
  1228. spin_lock_bh(&adapter->mcc_lock);
  1229. wrb = wrb_from_mccq(adapter);
  1230. if (!wrb) {
  1231. status = -EBUSY;
  1232. goto err;
  1233. }
  1234. req = embedded_payload(wrb);
  1235. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1236. OPCODE_COMMON_MODIFY_EQ_DELAY, sizeof(*req), wrb, NULL);
  1237. req->num_eq = cpu_to_le32(1);
  1238. req->delay[0].eq_id = cpu_to_le32(eq_id);
  1239. req->delay[0].phase = 0;
  1240. req->delay[0].delay_multiplier = cpu_to_le32(eqd);
  1241. be_mcc_notify(adapter);
  1242. err:
  1243. spin_unlock_bh(&adapter->mcc_lock);
  1244. return status;
  1245. }
  1246. /* Uses sycnhronous mcc */
  1247. int be_cmd_vlan_config(struct be_adapter *adapter, u32 if_id, u16 *vtag_array,
  1248. u32 num, bool untagged, bool promiscuous)
  1249. {
  1250. struct be_mcc_wrb *wrb;
  1251. struct be_cmd_req_vlan_config *req;
  1252. int status;
  1253. spin_lock_bh(&adapter->mcc_lock);
  1254. wrb = wrb_from_mccq(adapter);
  1255. if (!wrb) {
  1256. status = -EBUSY;
  1257. goto err;
  1258. }
  1259. req = embedded_payload(wrb);
  1260. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1261. OPCODE_COMMON_NTWK_VLAN_CONFIG, sizeof(*req), wrb, NULL);
  1262. req->interface_id = if_id;
  1263. req->promiscuous = promiscuous;
  1264. req->untagged = untagged;
  1265. req->num_vlan = num;
  1266. if (!promiscuous) {
  1267. memcpy(req->normal_vlan, vtag_array,
  1268. req->num_vlan * sizeof(vtag_array[0]));
  1269. }
  1270. status = be_mcc_notify_wait(adapter);
  1271. err:
  1272. spin_unlock_bh(&adapter->mcc_lock);
  1273. return status;
  1274. }
  1275. int be_cmd_rx_filter(struct be_adapter *adapter, u32 flags, u32 value)
  1276. {
  1277. struct be_mcc_wrb *wrb;
  1278. struct be_dma_mem *mem = &adapter->rx_filter;
  1279. struct be_cmd_req_rx_filter *req = mem->va;
  1280. int status;
  1281. spin_lock_bh(&adapter->mcc_lock);
  1282. wrb = wrb_from_mccq(adapter);
  1283. if (!wrb) {
  1284. status = -EBUSY;
  1285. goto err;
  1286. }
  1287. memset(req, 0, sizeof(*req));
  1288. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1289. OPCODE_COMMON_NTWK_RX_FILTER, sizeof(*req),
  1290. wrb, mem);
  1291. req->if_id = cpu_to_le32(adapter->if_handle);
  1292. if (flags & IFF_PROMISC) {
  1293. req->if_flags_mask = cpu_to_le32(BE_IF_FLAGS_PROMISCUOUS |
  1294. BE_IF_FLAGS_VLAN_PROMISCUOUS);
  1295. if (value == ON)
  1296. req->if_flags = cpu_to_le32(BE_IF_FLAGS_PROMISCUOUS |
  1297. BE_IF_FLAGS_VLAN_PROMISCUOUS);
  1298. } else if (flags & IFF_ALLMULTI) {
  1299. req->if_flags_mask = req->if_flags =
  1300. cpu_to_le32(BE_IF_FLAGS_MCAST_PROMISCUOUS);
  1301. } else {
  1302. struct netdev_hw_addr *ha;
  1303. int i = 0;
  1304. req->if_flags_mask = req->if_flags =
  1305. cpu_to_le32(BE_IF_FLAGS_MULTICAST);
  1306. /* Reset mcast promisc mode if already set by setting mask
  1307. * and not setting flags field
  1308. */
  1309. req->if_flags_mask |=
  1310. cpu_to_le32(BE_IF_FLAGS_MCAST_PROMISCUOUS);
  1311. req->mcast_num = cpu_to_le32(netdev_mc_count(adapter->netdev));
  1312. netdev_for_each_mc_addr(ha, adapter->netdev)
  1313. memcpy(req->mcast_mac[i++].byte, ha->addr, ETH_ALEN);
  1314. }
  1315. status = be_mcc_notify_wait(adapter);
  1316. err:
  1317. spin_unlock_bh(&adapter->mcc_lock);
  1318. return status;
  1319. }
  1320. /* Uses synchrounous mcc */
  1321. int be_cmd_set_flow_control(struct be_adapter *adapter, u32 tx_fc, u32 rx_fc)
  1322. {
  1323. struct be_mcc_wrb *wrb;
  1324. struct be_cmd_req_set_flow_control *req;
  1325. int status;
  1326. spin_lock_bh(&adapter->mcc_lock);
  1327. wrb = wrb_from_mccq(adapter);
  1328. if (!wrb) {
  1329. status = -EBUSY;
  1330. goto err;
  1331. }
  1332. req = embedded_payload(wrb);
  1333. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1334. OPCODE_COMMON_SET_FLOW_CONTROL, sizeof(*req), wrb, NULL);
  1335. req->tx_flow_control = cpu_to_le16((u16)tx_fc);
  1336. req->rx_flow_control = cpu_to_le16((u16)rx_fc);
  1337. status = be_mcc_notify_wait(adapter);
  1338. err:
  1339. spin_unlock_bh(&adapter->mcc_lock);
  1340. return status;
  1341. }
  1342. /* Uses sycn mcc */
  1343. int be_cmd_get_flow_control(struct be_adapter *adapter, u32 *tx_fc, u32 *rx_fc)
  1344. {
  1345. struct be_mcc_wrb *wrb;
  1346. struct be_cmd_req_get_flow_control *req;
  1347. int status;
  1348. spin_lock_bh(&adapter->mcc_lock);
  1349. wrb = wrb_from_mccq(adapter);
  1350. if (!wrb) {
  1351. status = -EBUSY;
  1352. goto err;
  1353. }
  1354. req = embedded_payload(wrb);
  1355. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1356. OPCODE_COMMON_GET_FLOW_CONTROL, sizeof(*req), wrb, NULL);
  1357. status = be_mcc_notify_wait(adapter);
  1358. if (!status) {
  1359. struct be_cmd_resp_get_flow_control *resp =
  1360. embedded_payload(wrb);
  1361. *tx_fc = le16_to_cpu(resp->tx_flow_control);
  1362. *rx_fc = le16_to_cpu(resp->rx_flow_control);
  1363. }
  1364. err:
  1365. spin_unlock_bh(&adapter->mcc_lock);
  1366. return status;
  1367. }
  1368. /* Uses mbox */
  1369. int be_cmd_query_fw_cfg(struct be_adapter *adapter, u32 *port_num,
  1370. u32 *mode, u32 *caps)
  1371. {
  1372. struct be_mcc_wrb *wrb;
  1373. struct be_cmd_req_query_fw_cfg *req;
  1374. int status;
  1375. if (mutex_lock_interruptible(&adapter->mbox_lock))
  1376. return -1;
  1377. wrb = wrb_from_mbox(adapter);
  1378. req = embedded_payload(wrb);
  1379. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1380. OPCODE_COMMON_QUERY_FIRMWARE_CONFIG, sizeof(*req), wrb, NULL);
  1381. status = be_mbox_notify_wait(adapter);
  1382. if (!status) {
  1383. struct be_cmd_resp_query_fw_cfg *resp = embedded_payload(wrb);
  1384. *port_num = le32_to_cpu(resp->phys_port);
  1385. *mode = le32_to_cpu(resp->function_mode);
  1386. *caps = le32_to_cpu(resp->function_caps);
  1387. }
  1388. mutex_unlock(&adapter->mbox_lock);
  1389. return status;
  1390. }
  1391. /* Uses mbox */
  1392. int be_cmd_reset_function(struct be_adapter *adapter)
  1393. {
  1394. struct be_mcc_wrb *wrb;
  1395. struct be_cmd_req_hdr *req;
  1396. int status;
  1397. if (mutex_lock_interruptible(&adapter->mbox_lock))
  1398. return -1;
  1399. wrb = wrb_from_mbox(adapter);
  1400. req = embedded_payload(wrb);
  1401. be_wrb_cmd_hdr_prepare(req, CMD_SUBSYSTEM_COMMON,
  1402. OPCODE_COMMON_FUNCTION_RESET, sizeof(*req), wrb, NULL);
  1403. status = be_mbox_notify_wait(adapter);
  1404. mutex_unlock(&adapter->mbox_lock);
  1405. return status;
  1406. }
  1407. int be_cmd_rss_config(struct be_adapter *adapter, u8 *rsstable, u16 table_size)
  1408. {
  1409. struct be_mcc_wrb *wrb;
  1410. struct be_cmd_req_rss_config *req;
  1411. u32 myhash[10] = {0x15d43fa5, 0x2534685a, 0x5f87693a, 0x5668494e,
  1412. 0x33cf6a53, 0x383334c6, 0x76ac4257, 0x59b242b2,
  1413. 0x3ea83c02, 0x4a110304};
  1414. int status;
  1415. if (mutex_lock_interruptible(&adapter->mbox_lock))
  1416. return -1;
  1417. wrb = wrb_from_mbox(adapter);
  1418. req = embedded_payload(wrb);
  1419. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  1420. OPCODE_ETH_RSS_CONFIG, sizeof(*req), wrb, NULL);
  1421. req->if_id = cpu_to_le32(adapter->if_handle);
  1422. req->enable_rss = cpu_to_le16(RSS_ENABLE_TCP_IPV4 | RSS_ENABLE_IPV4 |
  1423. RSS_ENABLE_TCP_IPV6 | RSS_ENABLE_IPV6);
  1424. req->cpu_table_size_log2 = cpu_to_le16(fls(table_size) - 1);
  1425. memcpy(req->cpu_table, rsstable, table_size);
  1426. memcpy(req->hash, myhash, sizeof(myhash));
  1427. be_dws_cpu_to_le(req->hash, sizeof(req->hash));
  1428. status = be_mbox_notify_wait(adapter);
  1429. mutex_unlock(&adapter->mbox_lock);
  1430. return status;
  1431. }
  1432. /* Uses sync mcc */
  1433. int be_cmd_set_beacon_state(struct be_adapter *adapter, u8 port_num,
  1434. u8 bcn, u8 sts, u8 state)
  1435. {
  1436. struct be_mcc_wrb *wrb;
  1437. struct be_cmd_req_enable_disable_beacon *req;
  1438. int status;
  1439. spin_lock_bh(&adapter->mcc_lock);
  1440. wrb = wrb_from_mccq(adapter);
  1441. if (!wrb) {
  1442. status = -EBUSY;
  1443. goto err;
  1444. }
  1445. req = embedded_payload(wrb);
  1446. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1447. OPCODE_COMMON_ENABLE_DISABLE_BEACON, sizeof(*req), wrb, NULL);
  1448. req->port_num = port_num;
  1449. req->beacon_state = state;
  1450. req->beacon_duration = bcn;
  1451. req->status_duration = sts;
  1452. status = be_mcc_notify_wait(adapter);
  1453. err:
  1454. spin_unlock_bh(&adapter->mcc_lock);
  1455. return status;
  1456. }
  1457. /* Uses sync mcc */
  1458. int be_cmd_get_beacon_state(struct be_adapter *adapter, u8 port_num, u32 *state)
  1459. {
  1460. struct be_mcc_wrb *wrb;
  1461. struct be_cmd_req_get_beacon_state *req;
  1462. int status;
  1463. spin_lock_bh(&adapter->mcc_lock);
  1464. wrb = wrb_from_mccq(adapter);
  1465. if (!wrb) {
  1466. status = -EBUSY;
  1467. goto err;
  1468. }
  1469. req = embedded_payload(wrb);
  1470. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1471. OPCODE_COMMON_GET_BEACON_STATE, sizeof(*req), wrb, NULL);
  1472. req->port_num = port_num;
  1473. status = be_mcc_notify_wait(adapter);
  1474. if (!status) {
  1475. struct be_cmd_resp_get_beacon_state *resp =
  1476. embedded_payload(wrb);
  1477. *state = resp->beacon_state;
  1478. }
  1479. err:
  1480. spin_unlock_bh(&adapter->mcc_lock);
  1481. return status;
  1482. }
  1483. int lancer_cmd_write_object(struct be_adapter *adapter, struct be_dma_mem *cmd,
  1484. u32 data_size, u32 data_offset, const char *obj_name,
  1485. u32 *data_written, u8 *addn_status)
  1486. {
  1487. struct be_mcc_wrb *wrb;
  1488. struct lancer_cmd_req_write_object *req;
  1489. struct lancer_cmd_resp_write_object *resp;
  1490. void *ctxt = NULL;
  1491. int status;
  1492. spin_lock_bh(&adapter->mcc_lock);
  1493. adapter->flash_status = 0;
  1494. wrb = wrb_from_mccq(adapter);
  1495. if (!wrb) {
  1496. status = -EBUSY;
  1497. goto err_unlock;
  1498. }
  1499. req = embedded_payload(wrb);
  1500. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1501. OPCODE_COMMON_WRITE_OBJECT,
  1502. sizeof(struct lancer_cmd_req_write_object), wrb,
  1503. NULL);
  1504. ctxt = &req->context;
  1505. AMAP_SET_BITS(struct amap_lancer_write_obj_context,
  1506. write_length, ctxt, data_size);
  1507. if (data_size == 0)
  1508. AMAP_SET_BITS(struct amap_lancer_write_obj_context,
  1509. eof, ctxt, 1);
  1510. else
  1511. AMAP_SET_BITS(struct amap_lancer_write_obj_context,
  1512. eof, ctxt, 0);
  1513. be_dws_cpu_to_le(ctxt, sizeof(req->context));
  1514. req->write_offset = cpu_to_le32(data_offset);
  1515. strcpy(req->object_name, obj_name);
  1516. req->descriptor_count = cpu_to_le32(1);
  1517. req->buf_len = cpu_to_le32(data_size);
  1518. req->addr_low = cpu_to_le32((cmd->dma +
  1519. sizeof(struct lancer_cmd_req_write_object))
  1520. & 0xFFFFFFFF);
  1521. req->addr_high = cpu_to_le32(upper_32_bits(cmd->dma +
  1522. sizeof(struct lancer_cmd_req_write_object)));
  1523. be_mcc_notify(adapter);
  1524. spin_unlock_bh(&adapter->mcc_lock);
  1525. if (!wait_for_completion_timeout(&adapter->flash_compl,
  1526. msecs_to_jiffies(30000)))
  1527. status = -1;
  1528. else
  1529. status = adapter->flash_status;
  1530. resp = embedded_payload(wrb);
  1531. if (!status)
  1532. *data_written = le32_to_cpu(resp->actual_write_len);
  1533. else
  1534. *addn_status = resp->additional_status;
  1535. return status;
  1536. err_unlock:
  1537. spin_unlock_bh(&adapter->mcc_lock);
  1538. return status;
  1539. }
  1540. int lancer_cmd_read_object(struct be_adapter *adapter, struct be_dma_mem *cmd,
  1541. u32 data_size, u32 data_offset, const char *obj_name,
  1542. u32 *data_read, u32 *eof, u8 *addn_status)
  1543. {
  1544. struct be_mcc_wrb *wrb;
  1545. struct lancer_cmd_req_read_object *req;
  1546. struct lancer_cmd_resp_read_object *resp;
  1547. int status;
  1548. spin_lock_bh(&adapter->mcc_lock);
  1549. wrb = wrb_from_mccq(adapter);
  1550. if (!wrb) {
  1551. status = -EBUSY;
  1552. goto err_unlock;
  1553. }
  1554. req = embedded_payload(wrb);
  1555. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1556. OPCODE_COMMON_READ_OBJECT,
  1557. sizeof(struct lancer_cmd_req_read_object), wrb,
  1558. NULL);
  1559. req->desired_read_len = cpu_to_le32(data_size);
  1560. req->read_offset = cpu_to_le32(data_offset);
  1561. strcpy(req->object_name, obj_name);
  1562. req->descriptor_count = cpu_to_le32(1);
  1563. req->buf_len = cpu_to_le32(data_size);
  1564. req->addr_low = cpu_to_le32((cmd->dma & 0xFFFFFFFF));
  1565. req->addr_high = cpu_to_le32(upper_32_bits(cmd->dma));
  1566. status = be_mcc_notify_wait(adapter);
  1567. resp = embedded_payload(wrb);
  1568. if (!status) {
  1569. *data_read = le32_to_cpu(resp->actual_read_len);
  1570. *eof = le32_to_cpu(resp->eof);
  1571. } else {
  1572. *addn_status = resp->additional_status;
  1573. }
  1574. err_unlock:
  1575. spin_unlock_bh(&adapter->mcc_lock);
  1576. return status;
  1577. }
  1578. int be_cmd_write_flashrom(struct be_adapter *adapter, struct be_dma_mem *cmd,
  1579. u32 flash_type, u32 flash_opcode, u32 buf_size)
  1580. {
  1581. struct be_mcc_wrb *wrb;
  1582. struct be_cmd_write_flashrom *req;
  1583. int status;
  1584. spin_lock_bh(&adapter->mcc_lock);
  1585. adapter->flash_status = 0;
  1586. wrb = wrb_from_mccq(adapter);
  1587. if (!wrb) {
  1588. status = -EBUSY;
  1589. goto err_unlock;
  1590. }
  1591. req = cmd->va;
  1592. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1593. OPCODE_COMMON_WRITE_FLASHROM, cmd->size, wrb, cmd);
  1594. req->params.op_type = cpu_to_le32(flash_type);
  1595. req->params.op_code = cpu_to_le32(flash_opcode);
  1596. req->params.data_buf_size = cpu_to_le32(buf_size);
  1597. be_mcc_notify(adapter);
  1598. spin_unlock_bh(&adapter->mcc_lock);
  1599. if (!wait_for_completion_timeout(&adapter->flash_compl,
  1600. msecs_to_jiffies(40000)))
  1601. status = -1;
  1602. else
  1603. status = adapter->flash_status;
  1604. return status;
  1605. err_unlock:
  1606. spin_unlock_bh(&adapter->mcc_lock);
  1607. return status;
  1608. }
  1609. int be_cmd_get_flash_crc(struct be_adapter *adapter, u8 *flashed_crc,
  1610. int offset)
  1611. {
  1612. struct be_mcc_wrb *wrb;
  1613. struct be_cmd_write_flashrom *req;
  1614. int status;
  1615. spin_lock_bh(&adapter->mcc_lock);
  1616. wrb = wrb_from_mccq(adapter);
  1617. if (!wrb) {
  1618. status = -EBUSY;
  1619. goto err;
  1620. }
  1621. req = embedded_payload(wrb);
  1622. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1623. OPCODE_COMMON_READ_FLASHROM, sizeof(*req)+4, wrb, NULL);
  1624. req->params.op_type = cpu_to_le32(OPTYPE_REDBOOT);
  1625. req->params.op_code = cpu_to_le32(FLASHROM_OPER_REPORT);
  1626. req->params.offset = cpu_to_le32(offset);
  1627. req->params.data_buf_size = cpu_to_le32(0x4);
  1628. status = be_mcc_notify_wait(adapter);
  1629. if (!status)
  1630. memcpy(flashed_crc, req->params.data_buf, 4);
  1631. err:
  1632. spin_unlock_bh(&adapter->mcc_lock);
  1633. return status;
  1634. }
  1635. int be_cmd_enable_magic_wol(struct be_adapter *adapter, u8 *mac,
  1636. struct be_dma_mem *nonemb_cmd)
  1637. {
  1638. struct be_mcc_wrb *wrb;
  1639. struct be_cmd_req_acpi_wol_magic_config *req;
  1640. int status;
  1641. spin_lock_bh(&adapter->mcc_lock);
  1642. wrb = wrb_from_mccq(adapter);
  1643. if (!wrb) {
  1644. status = -EBUSY;
  1645. goto err;
  1646. }
  1647. req = nonemb_cmd->va;
  1648. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  1649. OPCODE_ETH_ACPI_WOL_MAGIC_CONFIG, sizeof(*req), wrb,
  1650. nonemb_cmd);
  1651. memcpy(req->magic_mac, mac, ETH_ALEN);
  1652. status = be_mcc_notify_wait(adapter);
  1653. err:
  1654. spin_unlock_bh(&adapter->mcc_lock);
  1655. return status;
  1656. }
  1657. int be_cmd_set_loopback(struct be_adapter *adapter, u8 port_num,
  1658. u8 loopback_type, u8 enable)
  1659. {
  1660. struct be_mcc_wrb *wrb;
  1661. struct be_cmd_req_set_lmode *req;
  1662. int status;
  1663. spin_lock_bh(&adapter->mcc_lock);
  1664. wrb = wrb_from_mccq(adapter);
  1665. if (!wrb) {
  1666. status = -EBUSY;
  1667. goto err;
  1668. }
  1669. req = embedded_payload(wrb);
  1670. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_LOWLEVEL,
  1671. OPCODE_LOWLEVEL_SET_LOOPBACK_MODE, sizeof(*req), wrb,
  1672. NULL);
  1673. req->src_port = port_num;
  1674. req->dest_port = port_num;
  1675. req->loopback_type = loopback_type;
  1676. req->loopback_state = enable;
  1677. status = be_mcc_notify_wait(adapter);
  1678. err:
  1679. spin_unlock_bh(&adapter->mcc_lock);
  1680. return status;
  1681. }
  1682. int be_cmd_loopback_test(struct be_adapter *adapter, u32 port_num,
  1683. u32 loopback_type, u32 pkt_size, u32 num_pkts, u64 pattern)
  1684. {
  1685. struct be_mcc_wrb *wrb;
  1686. struct be_cmd_req_loopback_test *req;
  1687. int status;
  1688. spin_lock_bh(&adapter->mcc_lock);
  1689. wrb = wrb_from_mccq(adapter);
  1690. if (!wrb) {
  1691. status = -EBUSY;
  1692. goto err;
  1693. }
  1694. req = embedded_payload(wrb);
  1695. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_LOWLEVEL,
  1696. OPCODE_LOWLEVEL_LOOPBACK_TEST, sizeof(*req), wrb, NULL);
  1697. req->hdr.timeout = cpu_to_le32(4);
  1698. req->pattern = cpu_to_le64(pattern);
  1699. req->src_port = cpu_to_le32(port_num);
  1700. req->dest_port = cpu_to_le32(port_num);
  1701. req->pkt_size = cpu_to_le32(pkt_size);
  1702. req->num_pkts = cpu_to_le32(num_pkts);
  1703. req->loopback_type = cpu_to_le32(loopback_type);
  1704. status = be_mcc_notify_wait(adapter);
  1705. if (!status) {
  1706. struct be_cmd_resp_loopback_test *resp = embedded_payload(wrb);
  1707. status = le32_to_cpu(resp->status);
  1708. }
  1709. err:
  1710. spin_unlock_bh(&adapter->mcc_lock);
  1711. return status;
  1712. }
  1713. int be_cmd_ddr_dma_test(struct be_adapter *adapter, u64 pattern,
  1714. u32 byte_cnt, struct be_dma_mem *cmd)
  1715. {
  1716. struct be_mcc_wrb *wrb;
  1717. struct be_cmd_req_ddrdma_test *req;
  1718. int status;
  1719. int i, j = 0;
  1720. spin_lock_bh(&adapter->mcc_lock);
  1721. wrb = wrb_from_mccq(adapter);
  1722. if (!wrb) {
  1723. status = -EBUSY;
  1724. goto err;
  1725. }
  1726. req = cmd->va;
  1727. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_LOWLEVEL,
  1728. OPCODE_LOWLEVEL_HOST_DDR_DMA, cmd->size, wrb, cmd);
  1729. req->pattern = cpu_to_le64(pattern);
  1730. req->byte_count = cpu_to_le32(byte_cnt);
  1731. for (i = 0; i < byte_cnt; i++) {
  1732. req->snd_buff[i] = (u8)(pattern >> (j*8));
  1733. j++;
  1734. if (j > 7)
  1735. j = 0;
  1736. }
  1737. status = be_mcc_notify_wait(adapter);
  1738. if (!status) {
  1739. struct be_cmd_resp_ddrdma_test *resp;
  1740. resp = cmd->va;
  1741. if ((memcmp(resp->rcv_buff, req->snd_buff, byte_cnt) != 0) ||
  1742. resp->snd_err) {
  1743. status = -1;
  1744. }
  1745. }
  1746. err:
  1747. spin_unlock_bh(&adapter->mcc_lock);
  1748. return status;
  1749. }
  1750. int be_cmd_get_seeprom_data(struct be_adapter *adapter,
  1751. struct be_dma_mem *nonemb_cmd)
  1752. {
  1753. struct be_mcc_wrb *wrb;
  1754. struct be_cmd_req_seeprom_read *req;
  1755. struct be_sge *sge;
  1756. int status;
  1757. spin_lock_bh(&adapter->mcc_lock);
  1758. wrb = wrb_from_mccq(adapter);
  1759. if (!wrb) {
  1760. status = -EBUSY;
  1761. goto err;
  1762. }
  1763. req = nonemb_cmd->va;
  1764. sge = nonembedded_sgl(wrb);
  1765. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1766. OPCODE_COMMON_SEEPROM_READ, sizeof(*req), wrb,
  1767. nonemb_cmd);
  1768. status = be_mcc_notify_wait(adapter);
  1769. err:
  1770. spin_unlock_bh(&adapter->mcc_lock);
  1771. return status;
  1772. }
  1773. int be_cmd_get_phy_info(struct be_adapter *adapter)
  1774. {
  1775. struct be_mcc_wrb *wrb;
  1776. struct be_cmd_req_get_phy_info *req;
  1777. struct be_dma_mem cmd;
  1778. int status;
  1779. spin_lock_bh(&adapter->mcc_lock);
  1780. wrb = wrb_from_mccq(adapter);
  1781. if (!wrb) {
  1782. status = -EBUSY;
  1783. goto err;
  1784. }
  1785. cmd.size = sizeof(struct be_cmd_req_get_phy_info);
  1786. cmd.va = pci_alloc_consistent(adapter->pdev, cmd.size,
  1787. &cmd.dma);
  1788. if (!cmd.va) {
  1789. dev_err(&adapter->pdev->dev, "Memory alloc failure\n");
  1790. status = -ENOMEM;
  1791. goto err;
  1792. }
  1793. req = cmd.va;
  1794. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1795. OPCODE_COMMON_GET_PHY_DETAILS, sizeof(*req),
  1796. wrb, &cmd);
  1797. status = be_mcc_notify_wait(adapter);
  1798. if (!status) {
  1799. struct be_phy_info *resp_phy_info =
  1800. cmd.va + sizeof(struct be_cmd_req_hdr);
  1801. adapter->phy.phy_type = le16_to_cpu(resp_phy_info->phy_type);
  1802. adapter->phy.interface_type =
  1803. le16_to_cpu(resp_phy_info->interface_type);
  1804. adapter->phy.auto_speeds_supported =
  1805. le16_to_cpu(resp_phy_info->auto_speeds_supported);
  1806. adapter->phy.fixed_speeds_supported =
  1807. le16_to_cpu(resp_phy_info->fixed_speeds_supported);
  1808. adapter->phy.misc_params =
  1809. le32_to_cpu(resp_phy_info->misc_params);
  1810. }
  1811. pci_free_consistent(adapter->pdev, cmd.size,
  1812. cmd.va, cmd.dma);
  1813. err:
  1814. spin_unlock_bh(&adapter->mcc_lock);
  1815. return status;
  1816. }
  1817. int be_cmd_set_qos(struct be_adapter *adapter, u32 bps, u32 domain)
  1818. {
  1819. struct be_mcc_wrb *wrb;
  1820. struct be_cmd_req_set_qos *req;
  1821. int status;
  1822. spin_lock_bh(&adapter->mcc_lock);
  1823. wrb = wrb_from_mccq(adapter);
  1824. if (!wrb) {
  1825. status = -EBUSY;
  1826. goto err;
  1827. }
  1828. req = embedded_payload(wrb);
  1829. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1830. OPCODE_COMMON_SET_QOS, sizeof(*req), wrb, NULL);
  1831. req->hdr.domain = domain;
  1832. req->valid_bits = cpu_to_le32(BE_QOS_BITS_NIC);
  1833. req->max_bps_nic = cpu_to_le32(bps);
  1834. status = be_mcc_notify_wait(adapter);
  1835. err:
  1836. spin_unlock_bh(&adapter->mcc_lock);
  1837. return status;
  1838. }
  1839. int be_cmd_get_cntl_attributes(struct be_adapter *adapter)
  1840. {
  1841. struct be_mcc_wrb *wrb;
  1842. struct be_cmd_req_cntl_attribs *req;
  1843. struct be_cmd_resp_cntl_attribs *resp;
  1844. int status;
  1845. int payload_len = max(sizeof(*req), sizeof(*resp));
  1846. struct mgmt_controller_attrib *attribs;
  1847. struct be_dma_mem attribs_cmd;
  1848. memset(&attribs_cmd, 0, sizeof(struct be_dma_mem));
  1849. attribs_cmd.size = sizeof(struct be_cmd_resp_cntl_attribs);
  1850. attribs_cmd.va = pci_alloc_consistent(adapter->pdev, attribs_cmd.size,
  1851. &attribs_cmd.dma);
  1852. if (!attribs_cmd.va) {
  1853. dev_err(&adapter->pdev->dev,
  1854. "Memory allocation failure\n");
  1855. return -ENOMEM;
  1856. }
  1857. if (mutex_lock_interruptible(&adapter->mbox_lock))
  1858. return -1;
  1859. wrb = wrb_from_mbox(adapter);
  1860. if (!wrb) {
  1861. status = -EBUSY;
  1862. goto err;
  1863. }
  1864. req = attribs_cmd.va;
  1865. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1866. OPCODE_COMMON_GET_CNTL_ATTRIBUTES, payload_len, wrb,
  1867. &attribs_cmd);
  1868. status = be_mbox_notify_wait(adapter);
  1869. if (!status) {
  1870. attribs = attribs_cmd.va + sizeof(struct be_cmd_resp_hdr);
  1871. adapter->hba_port_num = attribs->hba_attribs.phy_port;
  1872. }
  1873. err:
  1874. mutex_unlock(&adapter->mbox_lock);
  1875. pci_free_consistent(adapter->pdev, attribs_cmd.size, attribs_cmd.va,
  1876. attribs_cmd.dma);
  1877. return status;
  1878. }
  1879. /* Uses mbox */
  1880. int be_cmd_req_native_mode(struct be_adapter *adapter)
  1881. {
  1882. struct be_mcc_wrb *wrb;
  1883. struct be_cmd_req_set_func_cap *req;
  1884. int status;
  1885. if (mutex_lock_interruptible(&adapter->mbox_lock))
  1886. return -1;
  1887. wrb = wrb_from_mbox(adapter);
  1888. if (!wrb) {
  1889. status = -EBUSY;
  1890. goto err;
  1891. }
  1892. req = embedded_payload(wrb);
  1893. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1894. OPCODE_COMMON_SET_DRIVER_FUNCTION_CAP, sizeof(*req), wrb, NULL);
  1895. req->valid_cap_flags = cpu_to_le32(CAPABILITY_SW_TIMESTAMPS |
  1896. CAPABILITY_BE3_NATIVE_ERX_API);
  1897. req->cap_flags = cpu_to_le32(CAPABILITY_BE3_NATIVE_ERX_API);
  1898. status = be_mbox_notify_wait(adapter);
  1899. if (!status) {
  1900. struct be_cmd_resp_set_func_cap *resp = embedded_payload(wrb);
  1901. adapter->be3_native = le32_to_cpu(resp->cap_flags) &
  1902. CAPABILITY_BE3_NATIVE_ERX_API;
  1903. }
  1904. err:
  1905. mutex_unlock(&adapter->mbox_lock);
  1906. return status;
  1907. }
  1908. /* Uses synchronous MCCQ */
  1909. int be_cmd_get_mac_from_list(struct be_adapter *adapter, u32 domain,
  1910. bool *pmac_id_active, u32 *pmac_id, u8 *mac)
  1911. {
  1912. struct be_mcc_wrb *wrb;
  1913. struct be_cmd_req_get_mac_list *req;
  1914. int status;
  1915. int mac_count;
  1916. struct be_dma_mem get_mac_list_cmd;
  1917. int i;
  1918. memset(&get_mac_list_cmd, 0, sizeof(struct be_dma_mem));
  1919. get_mac_list_cmd.size = sizeof(struct be_cmd_resp_get_mac_list);
  1920. get_mac_list_cmd.va = pci_alloc_consistent(adapter->pdev,
  1921. get_mac_list_cmd.size,
  1922. &get_mac_list_cmd.dma);
  1923. if (!get_mac_list_cmd.va) {
  1924. dev_err(&adapter->pdev->dev,
  1925. "Memory allocation failure during GET_MAC_LIST\n");
  1926. return -ENOMEM;
  1927. }
  1928. spin_lock_bh(&adapter->mcc_lock);
  1929. wrb = wrb_from_mccq(adapter);
  1930. if (!wrb) {
  1931. status = -EBUSY;
  1932. goto out;
  1933. }
  1934. req = get_mac_list_cmd.va;
  1935. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  1936. OPCODE_COMMON_GET_MAC_LIST, sizeof(*req),
  1937. wrb, &get_mac_list_cmd);
  1938. req->hdr.domain = domain;
  1939. req->mac_type = MAC_ADDRESS_TYPE_NETWORK;
  1940. req->perm_override = 1;
  1941. status = be_mcc_notify_wait(adapter);
  1942. if (!status) {
  1943. struct be_cmd_resp_get_mac_list *resp =
  1944. get_mac_list_cmd.va;
  1945. mac_count = resp->true_mac_count + resp->pseudo_mac_count;
  1946. /* Mac list returned could contain one or more active mac_ids
  1947. * or one or more pseudo permanant mac addresses. If an active
  1948. * mac_id is present, return first active mac_id found
  1949. */
  1950. for (i = 0; i < mac_count; i++) {
  1951. struct get_list_macaddr *mac_entry;
  1952. u16 mac_addr_size;
  1953. u32 mac_id;
  1954. mac_entry = &resp->macaddr_list[i];
  1955. mac_addr_size = le16_to_cpu(mac_entry->mac_addr_size);
  1956. /* mac_id is a 32 bit value and mac_addr size
  1957. * is 6 bytes
  1958. */
  1959. if (mac_addr_size == sizeof(u32)) {
  1960. *pmac_id_active = true;
  1961. mac_id = mac_entry->mac_addr_id.s_mac_id.mac_id;
  1962. *pmac_id = le32_to_cpu(mac_id);
  1963. goto out;
  1964. }
  1965. }
  1966. /* If no active mac_id found, return first pseudo mac addr */
  1967. *pmac_id_active = false;
  1968. memcpy(mac, resp->macaddr_list[0].mac_addr_id.macaddr,
  1969. ETH_ALEN);
  1970. }
  1971. out:
  1972. spin_unlock_bh(&adapter->mcc_lock);
  1973. pci_free_consistent(adapter->pdev, get_mac_list_cmd.size,
  1974. get_mac_list_cmd.va, get_mac_list_cmd.dma);
  1975. return status;
  1976. }
  1977. /* Uses synchronous MCCQ */
  1978. int be_cmd_set_mac_list(struct be_adapter *adapter, u8 *mac_array,
  1979. u8 mac_count, u32 domain)
  1980. {
  1981. struct be_mcc_wrb *wrb;
  1982. struct be_cmd_req_set_mac_list *req;
  1983. int status;
  1984. struct be_dma_mem cmd;
  1985. memset(&cmd, 0, sizeof(struct be_dma_mem));
  1986. cmd.size = sizeof(struct be_cmd_req_set_mac_list);
  1987. cmd.va = dma_alloc_coherent(&adapter->pdev->dev, cmd.size,
  1988. &cmd.dma, GFP_KERNEL);
  1989. if (!cmd.va) {
  1990. dev_err(&adapter->pdev->dev, "Memory alloc failure\n");
  1991. return -ENOMEM;
  1992. }
  1993. spin_lock_bh(&adapter->mcc_lock);
  1994. wrb = wrb_from_mccq(adapter);
  1995. if (!wrb) {
  1996. status = -EBUSY;
  1997. goto err;
  1998. }
  1999. req = cmd.va;
  2000. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  2001. OPCODE_COMMON_SET_MAC_LIST, sizeof(*req),
  2002. wrb, &cmd);
  2003. req->hdr.domain = domain;
  2004. req->mac_count = mac_count;
  2005. if (mac_count)
  2006. memcpy(req->mac, mac_array, ETH_ALEN*mac_count);
  2007. status = be_mcc_notify_wait(adapter);
  2008. err:
  2009. dma_free_coherent(&adapter->pdev->dev, cmd.size,
  2010. cmd.va, cmd.dma);
  2011. spin_unlock_bh(&adapter->mcc_lock);
  2012. return status;
  2013. }
  2014. int be_cmd_set_hsw_config(struct be_adapter *adapter, u16 pvid,
  2015. u32 domain, u16 intf_id)
  2016. {
  2017. struct be_mcc_wrb *wrb;
  2018. struct be_cmd_req_set_hsw_config *req;
  2019. void *ctxt;
  2020. int status;
  2021. spin_lock_bh(&adapter->mcc_lock);
  2022. wrb = wrb_from_mccq(adapter);
  2023. if (!wrb) {
  2024. status = -EBUSY;
  2025. goto err;
  2026. }
  2027. req = embedded_payload(wrb);
  2028. ctxt = &req->context;
  2029. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  2030. OPCODE_COMMON_SET_HSW_CONFIG, sizeof(*req), wrb, NULL);
  2031. req->hdr.domain = domain;
  2032. AMAP_SET_BITS(struct amap_set_hsw_context, interface_id, ctxt, intf_id);
  2033. if (pvid) {
  2034. AMAP_SET_BITS(struct amap_set_hsw_context, pvid_valid, ctxt, 1);
  2035. AMAP_SET_BITS(struct amap_set_hsw_context, pvid, ctxt, pvid);
  2036. }
  2037. be_dws_cpu_to_le(req->context, sizeof(req->context));
  2038. status = be_mcc_notify_wait(adapter);
  2039. err:
  2040. spin_unlock_bh(&adapter->mcc_lock);
  2041. return status;
  2042. }
  2043. /* Get Hyper switch config */
  2044. int be_cmd_get_hsw_config(struct be_adapter *adapter, u16 *pvid,
  2045. u32 domain, u16 intf_id)
  2046. {
  2047. struct be_mcc_wrb *wrb;
  2048. struct be_cmd_req_get_hsw_config *req;
  2049. void *ctxt;
  2050. int status;
  2051. u16 vid;
  2052. spin_lock_bh(&adapter->mcc_lock);
  2053. wrb = wrb_from_mccq(adapter);
  2054. if (!wrb) {
  2055. status = -EBUSY;
  2056. goto err;
  2057. }
  2058. req = embedded_payload(wrb);
  2059. ctxt = &req->context;
  2060. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  2061. OPCODE_COMMON_GET_HSW_CONFIG, sizeof(*req), wrb, NULL);
  2062. req->hdr.domain = domain;
  2063. AMAP_SET_BITS(struct amap_get_hsw_req_context, interface_id, ctxt,
  2064. intf_id);
  2065. AMAP_SET_BITS(struct amap_get_hsw_req_context, pvid_valid, ctxt, 1);
  2066. be_dws_cpu_to_le(req->context, sizeof(req->context));
  2067. status = be_mcc_notify_wait(adapter);
  2068. if (!status) {
  2069. struct be_cmd_resp_get_hsw_config *resp =
  2070. embedded_payload(wrb);
  2071. be_dws_le_to_cpu(&resp->context,
  2072. sizeof(resp->context));
  2073. vid = AMAP_GET_BITS(struct amap_get_hsw_resp_context,
  2074. pvid, &resp->context);
  2075. *pvid = le16_to_cpu(vid);
  2076. }
  2077. err:
  2078. spin_unlock_bh(&adapter->mcc_lock);
  2079. return status;
  2080. }
  2081. int be_cmd_get_acpi_wol_cap(struct be_adapter *adapter)
  2082. {
  2083. struct be_mcc_wrb *wrb;
  2084. struct be_cmd_req_acpi_wol_magic_config_v1 *req;
  2085. int status;
  2086. int payload_len = sizeof(*req);
  2087. struct be_dma_mem cmd;
  2088. memset(&cmd, 0, sizeof(struct be_dma_mem));
  2089. cmd.size = sizeof(struct be_cmd_resp_acpi_wol_magic_config_v1);
  2090. cmd.va = pci_alloc_consistent(adapter->pdev, cmd.size,
  2091. &cmd.dma);
  2092. if (!cmd.va) {
  2093. dev_err(&adapter->pdev->dev,
  2094. "Memory allocation failure\n");
  2095. return -ENOMEM;
  2096. }
  2097. if (mutex_lock_interruptible(&adapter->mbox_lock))
  2098. return -1;
  2099. wrb = wrb_from_mbox(adapter);
  2100. if (!wrb) {
  2101. status = -EBUSY;
  2102. goto err;
  2103. }
  2104. req = cmd.va;
  2105. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_ETH,
  2106. OPCODE_ETH_ACPI_WOL_MAGIC_CONFIG,
  2107. payload_len, wrb, &cmd);
  2108. req->hdr.version = 1;
  2109. req->query_options = BE_GET_WOL_CAP;
  2110. status = be_mbox_notify_wait(adapter);
  2111. if (!status) {
  2112. struct be_cmd_resp_acpi_wol_magic_config_v1 *resp;
  2113. resp = (struct be_cmd_resp_acpi_wol_magic_config_v1 *) cmd.va;
  2114. /* the command could succeed misleadingly on old f/w
  2115. * which is not aware of the V1 version. fake an error. */
  2116. if (resp->hdr.response_length < payload_len) {
  2117. status = -1;
  2118. goto err;
  2119. }
  2120. adapter->wol_cap = resp->wol_settings;
  2121. }
  2122. err:
  2123. mutex_unlock(&adapter->mbox_lock);
  2124. pci_free_consistent(adapter->pdev, cmd.size, cmd.va, cmd.dma);
  2125. return status;
  2126. }
  2127. int be_cmd_get_ext_fat_capabilites(struct be_adapter *adapter,
  2128. struct be_dma_mem *cmd)
  2129. {
  2130. struct be_mcc_wrb *wrb;
  2131. struct be_cmd_req_get_ext_fat_caps *req;
  2132. int status;
  2133. if (mutex_lock_interruptible(&adapter->mbox_lock))
  2134. return -1;
  2135. wrb = wrb_from_mbox(adapter);
  2136. if (!wrb) {
  2137. status = -EBUSY;
  2138. goto err;
  2139. }
  2140. req = cmd->va;
  2141. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  2142. OPCODE_COMMON_GET_EXT_FAT_CAPABILITES,
  2143. cmd->size, wrb, cmd);
  2144. req->parameter_type = cpu_to_le32(1);
  2145. status = be_mbox_notify_wait(adapter);
  2146. err:
  2147. mutex_unlock(&adapter->mbox_lock);
  2148. return status;
  2149. }
  2150. int be_cmd_set_ext_fat_capabilites(struct be_adapter *adapter,
  2151. struct be_dma_mem *cmd,
  2152. struct be_fat_conf_params *configs)
  2153. {
  2154. struct be_mcc_wrb *wrb;
  2155. struct be_cmd_req_set_ext_fat_caps *req;
  2156. int status;
  2157. spin_lock_bh(&adapter->mcc_lock);
  2158. wrb = wrb_from_mccq(adapter);
  2159. if (!wrb) {
  2160. status = -EBUSY;
  2161. goto err;
  2162. }
  2163. req = cmd->va;
  2164. memcpy(&req->set_params, configs, sizeof(struct be_fat_conf_params));
  2165. be_wrb_cmd_hdr_prepare(&req->hdr, CMD_SUBSYSTEM_COMMON,
  2166. OPCODE_COMMON_SET_EXT_FAT_CAPABILITES,
  2167. cmd->size, wrb, cmd);
  2168. status = be_mcc_notify_wait(adapter);
  2169. err:
  2170. spin_unlock_bh(&adapter->mcc_lock);
  2171. return status;
  2172. }
  2173. int be_roce_mcc_cmd(void *netdev_handle, void *wrb_payload,
  2174. int wrb_payload_size, u16 *cmd_status, u16 *ext_status)
  2175. {
  2176. struct be_adapter *adapter = netdev_priv(netdev_handle);
  2177. struct be_mcc_wrb *wrb;
  2178. struct be_cmd_req_hdr *hdr = (struct be_cmd_req_hdr *) wrb_payload;
  2179. struct be_cmd_req_hdr *req;
  2180. struct be_cmd_resp_hdr *resp;
  2181. int status;
  2182. spin_lock_bh(&adapter->mcc_lock);
  2183. wrb = wrb_from_mccq(adapter);
  2184. if (!wrb) {
  2185. status = -EBUSY;
  2186. goto err;
  2187. }
  2188. req = embedded_payload(wrb);
  2189. resp = embedded_payload(wrb);
  2190. be_wrb_cmd_hdr_prepare(req, hdr->subsystem,
  2191. hdr->opcode, wrb_payload_size, wrb, NULL);
  2192. memcpy(req, wrb_payload, wrb_payload_size);
  2193. be_dws_cpu_to_le(req, wrb_payload_size);
  2194. status = be_mcc_notify_wait(adapter);
  2195. if (cmd_status)
  2196. *cmd_status = (status & 0xffff);
  2197. if (ext_status)
  2198. *ext_status = 0;
  2199. memcpy(wrb_payload, resp, sizeof(*resp) + resp->response_length);
  2200. be_dws_le_to_cpu(wrb_payload, sizeof(*resp) + resp->response_length);
  2201. err:
  2202. spin_unlock_bh(&adapter->mcc_lock);
  2203. return status;
  2204. }
  2205. EXPORT_SYMBOL(be_roce_mcc_cmd);