ast_post.c 45 KB

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  1. /*
  2. * Copyright 2012 Red Hat Inc.
  3. *
  4. * Permission is hereby granted, free of charge, to any person obtaining a
  5. * copy of this software and associated documentation files (the
  6. * "Software"), to deal in the Software without restriction, including
  7. * without limitation the rights to use, copy, modify, merge, publish,
  8. * distribute, sub license, and/or sell copies of the Software, and to
  9. * permit persons to whom the Software is furnished to do so, subject to
  10. * the following conditions:
  11. *
  12. * THE SOFTWARE IS PROVIDED "AS IS", WITHOUT WARRANTY OF ANY KIND, EXPRESS OR
  13. * IMPLIED, INCLUDING BUT NOT LIMITED TO THE WARRANTIES OF MERCHANTABILITY,
  14. * FITNESS FOR A PARTICULAR PURPOSE AND NON-INFRINGEMENT. IN NO EVENT SHALL
  15. * THE COPYRIGHT HOLDERS, AUTHORS AND/OR ITS SUPPLIERS BE LIABLE FOR ANY CLAIM,
  16. * DAMAGES OR OTHER LIABILITY, WHETHER IN AN ACTION OF CONTRACT, TORT OR
  17. * OTHERWISE, ARISING FROM, OUT OF OR IN CONNECTION WITH THE SOFTWARE OR THE
  18. * USE OR OTHER DEALINGS IN THE SOFTWARE.
  19. *
  20. * The above copyright notice and this permission notice (including the
  21. * next paragraph) shall be included in all copies or substantial portions
  22. * of the Software.
  23. *
  24. */
  25. /*
  26. * Authors: Dave Airlie <airlied@redhat.com>
  27. */
  28. #include <drm/drmP.h>
  29. #include "ast_drv.h"
  30. #include "ast_dram_tables.h"
  31. static void ast_init_dram_2300(struct drm_device *dev);
  32. static void
  33. ast_enable_vga(struct drm_device *dev)
  34. {
  35. struct ast_private *ast = dev->dev_private;
  36. ast_io_write8(ast, 0x43, 0x01);
  37. ast_io_write8(ast, 0x42, 0x01);
  38. }
  39. #if 0 /* will use later */
  40. static bool
  41. ast_is_vga_enabled(struct drm_device *dev)
  42. {
  43. struct ast_private *ast = dev->dev_private;
  44. u8 ch;
  45. if (ast->chip == AST1180) {
  46. /* TODO 1180 */
  47. } else {
  48. ch = ast_io_read8(ast, 0x43);
  49. if (ch) {
  50. ast_open_key(ast);
  51. ch = ast_get_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xb6, 0xff);
  52. return ch & 0x04;
  53. }
  54. }
  55. return 0;
  56. }
  57. #endif
  58. static const u8 extreginfo[] = { 0x0f, 0x04, 0x1c, 0xff };
  59. static const u8 extreginfo_ast2300a0[] = { 0x0f, 0x04, 0x1c, 0xff };
  60. static const u8 extreginfo_ast2300[] = { 0x0f, 0x04, 0x1f, 0xff };
  61. static void
  62. ast_set_def_ext_reg(struct drm_device *dev)
  63. {
  64. struct ast_private *ast = dev->dev_private;
  65. u8 i, index, reg;
  66. const u8 *ext_reg_info;
  67. /* reset scratch */
  68. for (i = 0x81; i <= 0x8f; i++)
  69. ast_set_index_reg(ast, AST_IO_CRTC_PORT, i, 0x00);
  70. if (ast->chip == AST2300) {
  71. if (dev->pdev->revision >= 0x20)
  72. ext_reg_info = extreginfo_ast2300;
  73. else
  74. ext_reg_info = extreginfo_ast2300a0;
  75. } else
  76. ext_reg_info = extreginfo;
  77. index = 0xa0;
  78. while (*ext_reg_info != 0xff) {
  79. ast_set_index_reg_mask(ast, AST_IO_CRTC_PORT, index, 0x00, *ext_reg_info);
  80. index++;
  81. ext_reg_info++;
  82. }
  83. /* disable standard IO/MEM decode if secondary */
  84. /* ast_set_index_reg-mask(ast, AST_IO_CRTC_PORT, 0xa1, 0xff, 0x3); */
  85. /* Set Ext. Default */
  86. ast_set_index_reg_mask(ast, AST_IO_CRTC_PORT, 0x8c, 0x00, 0x01);
  87. ast_set_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xb7, 0x00, 0x00);
  88. /* Enable RAMDAC for A1 */
  89. reg = 0x04;
  90. if (ast->chip == AST2300)
  91. reg |= 0x20;
  92. ast_set_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xb6, 0xff, reg);
  93. }
  94. static inline u32 mindwm(struct ast_private *ast, u32 r)
  95. {
  96. ast_write32(ast, 0xf004, r & 0xffff0000);
  97. ast_write32(ast, 0xf000, 0x1);
  98. return ast_read32(ast, 0x10000 + (r & 0x0000ffff));
  99. }
  100. static inline void moutdwm(struct ast_private *ast, u32 r, u32 v)
  101. {
  102. ast_write32(ast, 0xf004, r & 0xffff0000);
  103. ast_write32(ast, 0xf000, 0x1);
  104. ast_write32(ast, 0x10000 + (r & 0x0000ffff), v);
  105. }
  106. /*
  107. * AST2100/2150 DLL CBR Setting
  108. */
  109. #define CBR_SIZE_AST2150 ((16 << 10) - 1)
  110. #define CBR_PASSNUM_AST2150 5
  111. #define CBR_THRESHOLD_AST2150 10
  112. #define CBR_THRESHOLD2_AST2150 10
  113. #define TIMEOUT_AST2150 5000000
  114. #define CBR_PATNUM_AST2150 8
  115. static const u32 pattern_AST2150[14] = {
  116. 0xFF00FF00,
  117. 0xCC33CC33,
  118. 0xAA55AA55,
  119. 0xFFFE0001,
  120. 0x683501FE,
  121. 0x0F1929B0,
  122. 0x2D0B4346,
  123. 0x60767F02,
  124. 0x6FBE36A6,
  125. 0x3A253035,
  126. 0x3019686D,
  127. 0x41C6167E,
  128. 0x620152BF,
  129. 0x20F050E0
  130. };
  131. static u32 mmctestburst2_ast2150(struct ast_private *ast, u32 datagen)
  132. {
  133. u32 data, timeout;
  134. moutdwm(ast, 0x1e6e0070, 0x00000000);
  135. moutdwm(ast, 0x1e6e0070, 0x00000001 | (datagen << 3));
  136. timeout = 0;
  137. do {
  138. data = mindwm(ast, 0x1e6e0070) & 0x40;
  139. if (++timeout > TIMEOUT_AST2150) {
  140. moutdwm(ast, 0x1e6e0070, 0x00000000);
  141. return 0xffffffff;
  142. }
  143. } while (!data);
  144. moutdwm(ast, 0x1e6e0070, 0x00000000);
  145. moutdwm(ast, 0x1e6e0070, 0x00000003 | (datagen << 3));
  146. timeout = 0;
  147. do {
  148. data = mindwm(ast, 0x1e6e0070) & 0x40;
  149. if (++timeout > TIMEOUT_AST2150) {
  150. moutdwm(ast, 0x1e6e0070, 0x00000000);
  151. return 0xffffffff;
  152. }
  153. } while (!data);
  154. data = (mindwm(ast, 0x1e6e0070) & 0x80) >> 7;
  155. moutdwm(ast, 0x1e6e0070, 0x00000000);
  156. return data;
  157. }
  158. #if 0 /* unused in DDX driver - here for completeness */
  159. static u32 mmctestsingle2_ast2150(struct ast_private *ast, u32 datagen)
  160. {
  161. u32 data, timeout;
  162. moutdwm(ast, 0x1e6e0070, 0x00000000);
  163. moutdwm(ast, 0x1e6e0070, 0x00000005 | (datagen << 3));
  164. timeout = 0;
  165. do {
  166. data = mindwm(ast, 0x1e6e0070) & 0x40;
  167. if (++timeout > TIMEOUT_AST2150) {
  168. moutdwm(ast, 0x1e6e0070, 0x00000000);
  169. return 0xffffffff;
  170. }
  171. } while (!data);
  172. data = (mindwm(ast, 0x1e6e0070) & 0x80) >> 7;
  173. moutdwm(ast, 0x1e6e0070, 0x00000000);
  174. return data;
  175. }
  176. #endif
  177. static int cbrtest_ast2150(struct ast_private *ast)
  178. {
  179. int i;
  180. for (i = 0; i < 8; i++)
  181. if (mmctestburst2_ast2150(ast, i))
  182. return 0;
  183. return 1;
  184. }
  185. static int cbrscan_ast2150(struct ast_private *ast, int busw)
  186. {
  187. u32 patcnt, loop;
  188. for (patcnt = 0; patcnt < CBR_PATNUM_AST2150; patcnt++) {
  189. moutdwm(ast, 0x1e6e007c, pattern_AST2150[patcnt]);
  190. for (loop = 0; loop < CBR_PASSNUM_AST2150; loop++) {
  191. if (cbrtest_ast2150(ast))
  192. break;
  193. }
  194. if (loop == CBR_PASSNUM_AST2150)
  195. return 0;
  196. }
  197. return 1;
  198. }
  199. static void cbrdlli_ast2150(struct ast_private *ast, int busw)
  200. {
  201. u32 dll_min[4], dll_max[4], dlli, data, passcnt;
  202. cbr_start:
  203. dll_min[0] = dll_min[1] = dll_min[2] = dll_min[3] = 0xff;
  204. dll_max[0] = dll_max[1] = dll_max[2] = dll_max[3] = 0x0;
  205. passcnt = 0;
  206. for (dlli = 0; dlli < 100; dlli++) {
  207. moutdwm(ast, 0x1e6e0068, dlli | (dlli << 8) | (dlli << 16) | (dlli << 24));
  208. data = cbrscan_ast2150(ast, busw);
  209. if (data != 0) {
  210. if (data & 0x1) {
  211. if (dll_min[0] > dlli)
  212. dll_min[0] = dlli;
  213. if (dll_max[0] < dlli)
  214. dll_max[0] = dlli;
  215. }
  216. passcnt++;
  217. } else if (passcnt >= CBR_THRESHOLD_AST2150)
  218. goto cbr_start;
  219. }
  220. if (dll_max[0] == 0 || (dll_max[0]-dll_min[0]) < CBR_THRESHOLD_AST2150)
  221. goto cbr_start;
  222. dlli = dll_min[0] + (((dll_max[0] - dll_min[0]) * 7) >> 4);
  223. moutdwm(ast, 0x1e6e0068, dlli | (dlli << 8) | (dlli << 16) | (dlli << 24));
  224. }
  225. static void ast_init_dram_reg(struct drm_device *dev)
  226. {
  227. struct ast_private *ast = dev->dev_private;
  228. u8 j;
  229. u32 data, temp, i;
  230. const struct ast_dramstruct *dram_reg_info;
  231. j = ast_get_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xd0, 0xff);
  232. if ((j & 0x80) == 0) { /* VGA only */
  233. if (ast->chip == AST2000) {
  234. dram_reg_info = ast2000_dram_table_data;
  235. ast_write32(ast, 0xf004, 0x1e6e0000);
  236. ast_write32(ast, 0xf000, 0x1);
  237. ast_write32(ast, 0x10100, 0xa8);
  238. do {
  239. ;
  240. } while (ast_read32(ast, 0x10100) != 0xa8);
  241. } else {/* AST2100/1100 */
  242. if (ast->chip == AST2100 || ast->chip == 2200)
  243. dram_reg_info = ast2100_dram_table_data;
  244. else
  245. dram_reg_info = ast1100_dram_table_data;
  246. ast_write32(ast, 0xf004, 0x1e6e0000);
  247. ast_write32(ast, 0xf000, 0x1);
  248. ast_write32(ast, 0x12000, 0x1688A8A8);
  249. do {
  250. ;
  251. } while (ast_read32(ast, 0x12000) != 0x01);
  252. ast_write32(ast, 0x10000, 0xfc600309);
  253. do {
  254. ;
  255. } while (ast_read32(ast, 0x10000) != 0x01);
  256. }
  257. while (dram_reg_info->index != 0xffff) {
  258. if (dram_reg_info->index == 0xff00) {/* delay fn */
  259. for (i = 0; i < 15; i++)
  260. udelay(dram_reg_info->data);
  261. } else if (dram_reg_info->index == 0x4 && ast->chip != AST2000) {
  262. data = dram_reg_info->data;
  263. if (ast->dram_type == AST_DRAM_1Gx16)
  264. data = 0x00000d89;
  265. else if (ast->dram_type == AST_DRAM_1Gx32)
  266. data = 0x00000c8d;
  267. temp = ast_read32(ast, 0x12070);
  268. temp &= 0xc;
  269. temp <<= 2;
  270. ast_write32(ast, 0x10000 + dram_reg_info->index, data | temp);
  271. } else
  272. ast_write32(ast, 0x10000 + dram_reg_info->index, dram_reg_info->data);
  273. dram_reg_info++;
  274. }
  275. /* AST 2100/2150 DRAM calibration */
  276. data = ast_read32(ast, 0x10120);
  277. if (data == 0x5061) { /* 266Mhz */
  278. data = ast_read32(ast, 0x10004);
  279. if (data & 0x40)
  280. cbrdlli_ast2150(ast, 16); /* 16 bits */
  281. else
  282. cbrdlli_ast2150(ast, 32); /* 32 bits */
  283. }
  284. switch (ast->chip) {
  285. case AST2000:
  286. temp = ast_read32(ast, 0x10140);
  287. ast_write32(ast, 0x10140, temp | 0x40);
  288. break;
  289. case AST1100:
  290. case AST2100:
  291. case AST2200:
  292. case AST2150:
  293. temp = ast_read32(ast, 0x1200c);
  294. ast_write32(ast, 0x1200c, temp & 0xfffffffd);
  295. temp = ast_read32(ast, 0x12040);
  296. ast_write32(ast, 0x12040, temp | 0x40);
  297. break;
  298. default:
  299. break;
  300. }
  301. }
  302. /* wait ready */
  303. do {
  304. j = ast_get_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xd0, 0xff);
  305. } while ((j & 0x40) == 0);
  306. }
  307. void ast_post_gpu(struct drm_device *dev)
  308. {
  309. u32 reg;
  310. struct ast_private *ast = dev->dev_private;
  311. pci_read_config_dword(ast->dev->pdev, 0x04, &reg);
  312. reg |= 0x3;
  313. pci_write_config_dword(ast->dev->pdev, 0x04, reg);
  314. ast_enable_vga(dev);
  315. ast_open_key(ast);
  316. ast_set_def_ext_reg(dev);
  317. if (ast->chip == AST2300)
  318. ast_init_dram_2300(dev);
  319. else
  320. ast_init_dram_reg(dev);
  321. }
  322. /* AST 2300 DRAM settings */
  323. #define AST_DDR3 0
  324. #define AST_DDR2 1
  325. struct ast2300_dram_param {
  326. u32 dram_type;
  327. u32 dram_chipid;
  328. u32 dram_freq;
  329. u32 vram_size;
  330. u32 odt;
  331. u32 wodt;
  332. u32 rodt;
  333. u32 dram_config;
  334. u32 reg_PERIOD;
  335. u32 reg_MADJ;
  336. u32 reg_SADJ;
  337. u32 reg_MRS;
  338. u32 reg_EMRS;
  339. u32 reg_AC1;
  340. u32 reg_AC2;
  341. u32 reg_DQSIC;
  342. u32 reg_DRV;
  343. u32 reg_IOZ;
  344. u32 reg_DQIDLY;
  345. u32 reg_FREQ;
  346. u32 madj_max;
  347. u32 dll2_finetune_step;
  348. };
  349. /*
  350. * DQSI DLL CBR Setting
  351. */
  352. #define CBR_SIZE1 ((4 << 10) - 1)
  353. #define CBR_SIZE2 ((64 << 10) - 1)
  354. #define CBR_PASSNUM 5
  355. #define CBR_PASSNUM2 5
  356. #define CBR_THRESHOLD 10
  357. #define CBR_THRESHOLD2 10
  358. #define TIMEOUT 5000000
  359. #define CBR_PATNUM 8
  360. static const u32 pattern[8] = {
  361. 0xFF00FF00,
  362. 0xCC33CC33,
  363. 0xAA55AA55,
  364. 0x88778877,
  365. 0x92CC4D6E,
  366. 0x543D3CDE,
  367. 0xF1E843C7,
  368. 0x7C61D253
  369. };
  370. #if 0 /* unused in DDX, included for completeness */
  371. static int mmc_test_burst(struct ast_private *ast, u32 datagen)
  372. {
  373. u32 data, timeout;
  374. moutdwm(ast, 0x1e6e0070, 0x00000000);
  375. moutdwm(ast, 0x1e6e0070, 0x000000c1 | (datagen << 3));
  376. timeout = 0;
  377. do {
  378. data = mindwm(ast, 0x1e6e0070) & 0x3000;
  379. if (data & 0x2000) {
  380. return 0;
  381. }
  382. if (++timeout > TIMEOUT) {
  383. moutdwm(ast, 0x1e6e0070, 0x00000000);
  384. return 0;
  385. }
  386. } while (!data);
  387. moutdwm(ast, 0x1e6e0070, 0x00000000);
  388. return 1;
  389. }
  390. #endif
  391. static int mmc_test_burst2(struct ast_private *ast, u32 datagen)
  392. {
  393. u32 data, timeout;
  394. moutdwm(ast, 0x1e6e0070, 0x00000000);
  395. moutdwm(ast, 0x1e6e0070, 0x00000041 | (datagen << 3));
  396. timeout = 0;
  397. do {
  398. data = mindwm(ast, 0x1e6e0070) & 0x1000;
  399. if (++timeout > TIMEOUT) {
  400. moutdwm(ast, 0x1e6e0070, 0x0);
  401. return -1;
  402. }
  403. } while (!data);
  404. data = mindwm(ast, 0x1e6e0078);
  405. data = (data | (data >> 16)) & 0xffff;
  406. moutdwm(ast, 0x1e6e0070, 0x0);
  407. return data;
  408. }
  409. #if 0 /* Unused in DDX here for completeness */
  410. static int mmc_test_single(struct ast_private *ast, u32 datagen)
  411. {
  412. u32 data, timeout;
  413. moutdwm(ast, 0x1e6e0070, 0x00000000);
  414. moutdwm(ast, 0x1e6e0070, 0x000000c5 | (datagen << 3));
  415. timeout = 0;
  416. do {
  417. data = mindwm(ast, 0x1e6e0070) & 0x3000;
  418. if (data & 0x2000)
  419. return 0;
  420. if (++timeout > TIMEOUT) {
  421. moutdwm(ast, 0x1e6e0070, 0x0);
  422. return 0;
  423. }
  424. } while (!data);
  425. moutdwm(ast, 0x1e6e0070, 0x0);
  426. return 1;
  427. }
  428. #endif
  429. static int mmc_test_single2(struct ast_private *ast, u32 datagen)
  430. {
  431. u32 data, timeout;
  432. moutdwm(ast, 0x1e6e0070, 0x00000000);
  433. moutdwm(ast, 0x1e6e0070, 0x00000005 | (datagen << 3));
  434. timeout = 0;
  435. do {
  436. data = mindwm(ast, 0x1e6e0070) & 0x1000;
  437. if (++timeout > TIMEOUT) {
  438. moutdwm(ast, 0x1e6e0070, 0x0);
  439. return -1;
  440. }
  441. } while (!data);
  442. data = mindwm(ast, 0x1e6e0078);
  443. data = (data | (data >> 16)) & 0xffff;
  444. moutdwm(ast, 0x1e6e0070, 0x0);
  445. return data;
  446. }
  447. static int cbr_test(struct ast_private *ast)
  448. {
  449. u32 data;
  450. int i;
  451. data = mmc_test_single2(ast, 0);
  452. if ((data & 0xff) && (data & 0xff00))
  453. return 0;
  454. for (i = 0; i < 8; i++) {
  455. data = mmc_test_burst2(ast, i);
  456. if ((data & 0xff) && (data & 0xff00))
  457. return 0;
  458. }
  459. if (!data)
  460. return 3;
  461. else if (data & 0xff)
  462. return 2;
  463. return 1;
  464. }
  465. static int cbr_scan(struct ast_private *ast)
  466. {
  467. u32 data, data2, patcnt, loop;
  468. data2 = 3;
  469. for (patcnt = 0; patcnt < CBR_PATNUM; patcnt++) {
  470. moutdwm(ast, 0x1e6e007c, pattern[patcnt]);
  471. for (loop = 0; loop < CBR_PASSNUM2; loop++) {
  472. if ((data = cbr_test(ast)) != 0) {
  473. data2 &= data;
  474. if (!data2)
  475. return 0;
  476. break;
  477. }
  478. }
  479. if (loop == CBR_PASSNUM2)
  480. return 0;
  481. }
  482. return data2;
  483. }
  484. static u32 cbr_test2(struct ast_private *ast)
  485. {
  486. u32 data;
  487. data = mmc_test_burst2(ast, 0);
  488. if (data == 0xffff)
  489. return 0;
  490. data |= mmc_test_single2(ast, 0);
  491. if (data == 0xffff)
  492. return 0;
  493. return ~data & 0xffff;
  494. }
  495. static u32 cbr_scan2(struct ast_private *ast)
  496. {
  497. u32 data, data2, patcnt, loop;
  498. data2 = 0xffff;
  499. for (patcnt = 0; patcnt < CBR_PATNUM; patcnt++) {
  500. moutdwm(ast, 0x1e6e007c, pattern[patcnt]);
  501. for (loop = 0; loop < CBR_PASSNUM2; loop++) {
  502. if ((data = cbr_test2(ast)) != 0) {
  503. data2 &= data;
  504. if (!data)
  505. return 0;
  506. break;
  507. }
  508. }
  509. if (loop == CBR_PASSNUM2)
  510. return 0;
  511. }
  512. return data2;
  513. }
  514. #if 0 /* unused in DDX - added for completeness */
  515. static void finetuneDQI(struct ast_private *ast, struct ast2300_dram_param *param)
  516. {
  517. u32 gold_sadj[2], dllmin[16], dllmax[16], dlli, data, cnt, mask, passcnt;
  518. gold_sadj[0] = (mindwm(ast, 0x1E6E0024) >> 16) & 0xffff;
  519. gold_sadj[1] = gold_sadj[0] >> 8;
  520. gold_sadj[0] = gold_sadj[0] & 0xff;
  521. gold_sadj[0] = (gold_sadj[0] + gold_sadj[1]) >> 1;
  522. gold_sadj[1] = gold_sadj[0];
  523. for (cnt = 0; cnt < 16; cnt++) {
  524. dllmin[cnt] = 0xff;
  525. dllmax[cnt] = 0x0;
  526. }
  527. passcnt = 0;
  528. for (dlli = 0; dlli < 76; dlli++) {
  529. moutdwm(ast, 0x1E6E0068, 0x00001400 | (dlli << 16) | (dlli << 24));
  530. /* Wait DQSI latch phase calibration */
  531. moutdwm(ast, 0x1E6E0074, 0x00000010);
  532. moutdwm(ast, 0x1E6E0070, 0x00000003);
  533. do {
  534. data = mindwm(ast, 0x1E6E0070);
  535. } while (!(data & 0x00001000));
  536. moutdwm(ast, 0x1E6E0070, 0x00000000);
  537. moutdwm(ast, 0x1E6E0074, CBR_SIZE1);
  538. data = cbr_scan2(ast);
  539. if (data != 0) {
  540. mask = 0x00010001;
  541. for (cnt = 0; cnt < 16; cnt++) {
  542. if (data & mask) {
  543. if (dllmin[cnt] > dlli) {
  544. dllmin[cnt] = dlli;
  545. }
  546. if (dllmax[cnt] < dlli) {
  547. dllmax[cnt] = dlli;
  548. }
  549. }
  550. mask <<= 1;
  551. }
  552. passcnt++;
  553. } else if (passcnt >= CBR_THRESHOLD) {
  554. break;
  555. }
  556. }
  557. data = 0;
  558. for (cnt = 0; cnt < 8; cnt++) {
  559. data >>= 3;
  560. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD)) {
  561. dlli = (dllmin[cnt] + dllmax[cnt]) >> 1;
  562. if (gold_sadj[0] >= dlli) {
  563. dlli = (gold_sadj[0] - dlli) >> 1;
  564. if (dlli > 3) {
  565. dlli = 3;
  566. }
  567. } else {
  568. dlli = (dlli - gold_sadj[0]) >> 1;
  569. if (dlli > 4) {
  570. dlli = 4;
  571. }
  572. dlli = (8 - dlli) & 0x7;
  573. }
  574. data |= dlli << 21;
  575. }
  576. }
  577. moutdwm(ast, 0x1E6E0080, data);
  578. data = 0;
  579. for (cnt = 8; cnt < 16; cnt++) {
  580. data >>= 3;
  581. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD)) {
  582. dlli = (dllmin[cnt] + dllmax[cnt]) >> 1;
  583. if (gold_sadj[1] >= dlli) {
  584. dlli = (gold_sadj[1] - dlli) >> 1;
  585. if (dlli > 3) {
  586. dlli = 3;
  587. } else {
  588. dlli = (dlli - 1) & 0x7;
  589. }
  590. } else {
  591. dlli = (dlli - gold_sadj[1]) >> 1;
  592. dlli += 1;
  593. if (dlli > 4) {
  594. dlli = 4;
  595. }
  596. dlli = (8 - dlli) & 0x7;
  597. }
  598. data |= dlli << 21;
  599. }
  600. }
  601. moutdwm(ast, 0x1E6E0084, data);
  602. } /* finetuneDQI */
  603. #endif
  604. static void finetuneDQI_L(struct ast_private *ast, struct ast2300_dram_param *param)
  605. {
  606. u32 gold_sadj[2], dllmin[16], dllmax[16], dlli, data, cnt, mask, passcnt;
  607. FINETUNE_START:
  608. for (cnt = 0; cnt < 16; cnt++) {
  609. dllmin[cnt] = 0xff;
  610. dllmax[cnt] = 0x0;
  611. }
  612. passcnt = 0;
  613. for (dlli = 0; dlli < 76; dlli++) {
  614. moutdwm(ast, 0x1E6E0068, 0x00001400 | (dlli << 16) | (dlli << 24));
  615. /* Wait DQSI latch phase calibration */
  616. moutdwm(ast, 0x1E6E0074, 0x00000010);
  617. moutdwm(ast, 0x1E6E0070, 0x00000003);
  618. do {
  619. data = mindwm(ast, 0x1E6E0070);
  620. } while (!(data & 0x00001000));
  621. moutdwm(ast, 0x1E6E0070, 0x00000000);
  622. moutdwm(ast, 0x1E6E0074, CBR_SIZE1);
  623. data = cbr_scan2(ast);
  624. if (data != 0) {
  625. mask = 0x00010001;
  626. for (cnt = 0; cnt < 16; cnt++) {
  627. if (data & mask) {
  628. if (dllmin[cnt] > dlli) {
  629. dllmin[cnt] = dlli;
  630. }
  631. if (dllmax[cnt] < dlli) {
  632. dllmax[cnt] = dlli;
  633. }
  634. }
  635. mask <<= 1;
  636. }
  637. passcnt++;
  638. } else if (passcnt >= CBR_THRESHOLD2) {
  639. break;
  640. }
  641. }
  642. gold_sadj[0] = 0x0;
  643. passcnt = 0;
  644. for (cnt = 0; cnt < 16; cnt++) {
  645. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  646. gold_sadj[0] += dllmin[cnt];
  647. passcnt++;
  648. }
  649. }
  650. if (passcnt != 16) {
  651. goto FINETUNE_START;
  652. }
  653. gold_sadj[0] = gold_sadj[0] >> 4;
  654. gold_sadj[1] = gold_sadj[0];
  655. data = 0;
  656. for (cnt = 0; cnt < 8; cnt++) {
  657. data >>= 3;
  658. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  659. dlli = dllmin[cnt];
  660. if (gold_sadj[0] >= dlli) {
  661. dlli = ((gold_sadj[0] - dlli) * 19) >> 5;
  662. if (dlli > 3) {
  663. dlli = 3;
  664. }
  665. } else {
  666. dlli = ((dlli - gold_sadj[0]) * 19) >> 5;
  667. if (dlli > 4) {
  668. dlli = 4;
  669. }
  670. dlli = (8 - dlli) & 0x7;
  671. }
  672. data |= dlli << 21;
  673. }
  674. }
  675. moutdwm(ast, 0x1E6E0080, data);
  676. data = 0;
  677. for (cnt = 8; cnt < 16; cnt++) {
  678. data >>= 3;
  679. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  680. dlli = dllmin[cnt];
  681. if (gold_sadj[1] >= dlli) {
  682. dlli = ((gold_sadj[1] - dlli) * 19) >> 5;
  683. if (dlli > 3) {
  684. dlli = 3;
  685. } else {
  686. dlli = (dlli - 1) & 0x7;
  687. }
  688. } else {
  689. dlli = ((dlli - gold_sadj[1]) * 19) >> 5;
  690. dlli += 1;
  691. if (dlli > 4) {
  692. dlli = 4;
  693. }
  694. dlli = (8 - dlli) & 0x7;
  695. }
  696. data |= dlli << 21;
  697. }
  698. }
  699. moutdwm(ast, 0x1E6E0084, data);
  700. } /* finetuneDQI_L */
  701. static void finetuneDQI_L2(struct ast_private *ast, struct ast2300_dram_param *param)
  702. {
  703. u32 gold_sadj[2], dllmin[16], dllmax[16], dlli, data, cnt, mask, passcnt, data2;
  704. for (cnt = 0; cnt < 16; cnt++) {
  705. dllmin[cnt] = 0xff;
  706. dllmax[cnt] = 0x0;
  707. }
  708. passcnt = 0;
  709. for (dlli = 0; dlli < 76; dlli++) {
  710. moutdwm(ast, 0x1E6E0068, 0x00001400 | (dlli << 16) | (dlli << 24));
  711. /* Wait DQSI latch phase calibration */
  712. moutdwm(ast, 0x1E6E0074, 0x00000010);
  713. moutdwm(ast, 0x1E6E0070, 0x00000003);
  714. do {
  715. data = mindwm(ast, 0x1E6E0070);
  716. } while (!(data & 0x00001000));
  717. moutdwm(ast, 0x1E6E0070, 0x00000000);
  718. moutdwm(ast, 0x1E6E0074, CBR_SIZE2);
  719. data = cbr_scan2(ast);
  720. if (data != 0) {
  721. mask = 0x00010001;
  722. for (cnt = 0; cnt < 16; cnt++) {
  723. if (data & mask) {
  724. if (dllmin[cnt] > dlli) {
  725. dllmin[cnt] = dlli;
  726. }
  727. if (dllmax[cnt] < dlli) {
  728. dllmax[cnt] = dlli;
  729. }
  730. }
  731. mask <<= 1;
  732. }
  733. passcnt++;
  734. } else if (passcnt >= CBR_THRESHOLD2) {
  735. break;
  736. }
  737. }
  738. gold_sadj[0] = 0x0;
  739. gold_sadj[1] = 0xFF;
  740. for (cnt = 0; cnt < 8; cnt++) {
  741. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  742. if (gold_sadj[0] < dllmin[cnt]) {
  743. gold_sadj[0] = dllmin[cnt];
  744. }
  745. if (gold_sadj[1] > dllmax[cnt]) {
  746. gold_sadj[1] = dllmax[cnt];
  747. }
  748. }
  749. }
  750. gold_sadj[0] = (gold_sadj[1] + gold_sadj[0]) >> 1;
  751. gold_sadj[1] = mindwm(ast, 0x1E6E0080);
  752. data = 0;
  753. for (cnt = 0; cnt < 8; cnt++) {
  754. data >>= 3;
  755. data2 = gold_sadj[1] & 0x7;
  756. gold_sadj[1] >>= 3;
  757. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  758. dlli = (dllmin[cnt] + dllmax[cnt]) >> 1;
  759. if (gold_sadj[0] >= dlli) {
  760. dlli = (gold_sadj[0] - dlli) >> 1;
  761. if (dlli > 0) {
  762. dlli = 1;
  763. }
  764. if (data2 != 3) {
  765. data2 = (data2 + dlli) & 0x7;
  766. }
  767. } else {
  768. dlli = (dlli - gold_sadj[0]) >> 1;
  769. if (dlli > 0) {
  770. dlli = 1;
  771. }
  772. if (data2 != 4) {
  773. data2 = (data2 - dlli) & 0x7;
  774. }
  775. }
  776. }
  777. data |= data2 << 21;
  778. }
  779. moutdwm(ast, 0x1E6E0080, data);
  780. gold_sadj[0] = 0x0;
  781. gold_sadj[1] = 0xFF;
  782. for (cnt = 8; cnt < 16; cnt++) {
  783. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  784. if (gold_sadj[0] < dllmin[cnt]) {
  785. gold_sadj[0] = dllmin[cnt];
  786. }
  787. if (gold_sadj[1] > dllmax[cnt]) {
  788. gold_sadj[1] = dllmax[cnt];
  789. }
  790. }
  791. }
  792. gold_sadj[0] = (gold_sadj[1] + gold_sadj[0]) >> 1;
  793. gold_sadj[1] = mindwm(ast, 0x1E6E0084);
  794. data = 0;
  795. for (cnt = 8; cnt < 16; cnt++) {
  796. data >>= 3;
  797. data2 = gold_sadj[1] & 0x7;
  798. gold_sadj[1] >>= 3;
  799. if ((dllmax[cnt] > dllmin[cnt]) && ((dllmax[cnt] - dllmin[cnt]) >= CBR_THRESHOLD2)) {
  800. dlli = (dllmin[cnt] + dllmax[cnt]) >> 1;
  801. if (gold_sadj[0] >= dlli) {
  802. dlli = (gold_sadj[0] - dlli) >> 1;
  803. if (dlli > 0) {
  804. dlli = 1;
  805. }
  806. if (data2 != 3) {
  807. data2 = (data2 + dlli) & 0x7;
  808. }
  809. } else {
  810. dlli = (dlli - gold_sadj[0]) >> 1;
  811. if (dlli > 0) {
  812. dlli = 1;
  813. }
  814. if (data2 != 4) {
  815. data2 = (data2 - dlli) & 0x7;
  816. }
  817. }
  818. }
  819. data |= data2 << 21;
  820. }
  821. moutdwm(ast, 0x1E6E0084, data);
  822. } /* finetuneDQI_L2 */
  823. static void cbr_dll2(struct ast_private *ast, struct ast2300_dram_param *param)
  824. {
  825. u32 dllmin[2], dllmax[2], dlli, data, data2, passcnt;
  826. finetuneDQI_L(ast, param);
  827. finetuneDQI_L2(ast, param);
  828. CBR_START2:
  829. dllmin[0] = dllmin[1] = 0xff;
  830. dllmax[0] = dllmax[1] = 0x0;
  831. passcnt = 0;
  832. for (dlli = 0; dlli < 76; dlli++) {
  833. moutdwm(ast, 0x1E6E0068, 0x00001300 | (dlli << 16) | (dlli << 24));
  834. /* Wait DQSI latch phase calibration */
  835. moutdwm(ast, 0x1E6E0074, 0x00000010);
  836. moutdwm(ast, 0x1E6E0070, 0x00000003);
  837. do {
  838. data = mindwm(ast, 0x1E6E0070);
  839. } while (!(data & 0x00001000));
  840. moutdwm(ast, 0x1E6E0070, 0x00000000);
  841. moutdwm(ast, 0x1E6E0074, CBR_SIZE2);
  842. data = cbr_scan(ast);
  843. if (data != 0) {
  844. if (data & 0x1) {
  845. if (dllmin[0] > dlli) {
  846. dllmin[0] = dlli;
  847. }
  848. if (dllmax[0] < dlli) {
  849. dllmax[0] = dlli;
  850. }
  851. }
  852. if (data & 0x2) {
  853. if (dllmin[1] > dlli) {
  854. dllmin[1] = dlli;
  855. }
  856. if (dllmax[1] < dlli) {
  857. dllmax[1] = dlli;
  858. }
  859. }
  860. passcnt++;
  861. } else if (passcnt >= CBR_THRESHOLD) {
  862. break;
  863. }
  864. }
  865. if (dllmax[0] == 0 || (dllmax[0]-dllmin[0]) < CBR_THRESHOLD) {
  866. goto CBR_START2;
  867. }
  868. if (dllmax[1] == 0 || (dllmax[1]-dllmin[1]) < CBR_THRESHOLD) {
  869. goto CBR_START2;
  870. }
  871. dlli = (dllmin[1] + dllmax[1]) >> 1;
  872. dlli <<= 8;
  873. dlli += (dllmin[0] + dllmax[0]) >> 1;
  874. moutdwm(ast, 0x1E6E0068, (mindwm(ast, 0x1E6E0068) & 0xFFFF) | (dlli << 16));
  875. data = (mindwm(ast, 0x1E6E0080) >> 24) & 0x1F;
  876. data2 = (mindwm(ast, 0x1E6E0018) & 0xff80ffff) | (data << 16);
  877. moutdwm(ast, 0x1E6E0018, data2);
  878. moutdwm(ast, 0x1E6E0024, 0x8001 | (data << 1) | (param->dll2_finetune_step << 8));
  879. /* Wait DQSI latch phase calibration */
  880. moutdwm(ast, 0x1E6E0074, 0x00000010);
  881. moutdwm(ast, 0x1E6E0070, 0x00000003);
  882. do {
  883. data = mindwm(ast, 0x1E6E0070);
  884. } while (!(data & 0x00001000));
  885. moutdwm(ast, 0x1E6E0070, 0x00000000);
  886. moutdwm(ast, 0x1E6E0070, 0x00000003);
  887. do {
  888. data = mindwm(ast, 0x1E6E0070);
  889. } while (!(data & 0x00001000));
  890. moutdwm(ast, 0x1E6E0070, 0x00000000);
  891. } /* CBRDLL2 */
  892. static void get_ddr3_info(struct ast_private *ast, struct ast2300_dram_param *param)
  893. {
  894. u32 trap, trap_AC2, trap_MRS;
  895. moutdwm(ast, 0x1E6E2000, 0x1688A8A8);
  896. /* Ger trap info */
  897. trap = (mindwm(ast, 0x1E6E2070) >> 25) & 0x3;
  898. trap_AC2 = 0x00020000 + (trap << 16);
  899. trap_AC2 |= 0x00300000 + ((trap & 0x2) << 19);
  900. trap_MRS = 0x00000010 + (trap << 4);
  901. trap_MRS |= ((trap & 0x2) << 18);
  902. param->reg_MADJ = 0x00034C4C;
  903. param->reg_SADJ = 0x00001800;
  904. param->reg_DRV = 0x000000F0;
  905. param->reg_PERIOD = param->dram_freq;
  906. param->rodt = 0;
  907. switch (param->dram_freq) {
  908. case 336:
  909. moutdwm(ast, 0x1E6E2020, 0x0190);
  910. param->wodt = 0;
  911. param->reg_AC1 = 0x22202725;
  912. param->reg_AC2 = 0xAA007613 | trap_AC2;
  913. param->reg_DQSIC = 0x000000BA;
  914. param->reg_MRS = 0x04001400 | trap_MRS;
  915. param->reg_EMRS = 0x00000000;
  916. param->reg_IOZ = 0x00000034;
  917. param->reg_DQIDLY = 0x00000074;
  918. param->reg_FREQ = 0x00004DC0;
  919. param->madj_max = 96;
  920. param->dll2_finetune_step = 3;
  921. break;
  922. default:
  923. case 396:
  924. moutdwm(ast, 0x1E6E2020, 0x03F1);
  925. param->wodt = 1;
  926. param->reg_AC1 = 0x33302825;
  927. param->reg_AC2 = 0xCC009617 | trap_AC2;
  928. param->reg_DQSIC = 0x000000E2;
  929. param->reg_MRS = 0x04001600 | trap_MRS;
  930. param->reg_EMRS = 0x00000000;
  931. param->reg_IOZ = 0x00000034;
  932. param->reg_DRV = 0x000000FA;
  933. param->reg_DQIDLY = 0x00000089;
  934. param->reg_FREQ = 0x000050C0;
  935. param->madj_max = 96;
  936. param->dll2_finetune_step = 4;
  937. switch (param->dram_chipid) {
  938. default:
  939. case AST_DRAM_512Mx16:
  940. case AST_DRAM_1Gx16:
  941. param->reg_AC2 = 0xCC009617 | trap_AC2;
  942. break;
  943. case AST_DRAM_2Gx16:
  944. param->reg_AC2 = 0xCC009622 | trap_AC2;
  945. break;
  946. case AST_DRAM_4Gx16:
  947. param->reg_AC2 = 0xCC00963F | trap_AC2;
  948. break;
  949. }
  950. break;
  951. case 408:
  952. moutdwm(ast, 0x1E6E2020, 0x01F0);
  953. param->wodt = 1;
  954. param->reg_AC1 = 0x33302825;
  955. param->reg_AC2 = 0xCC009617 | trap_AC2;
  956. param->reg_DQSIC = 0x000000E2;
  957. param->reg_MRS = 0x04001600 | trap_MRS;
  958. param->reg_EMRS = 0x00000000;
  959. param->reg_IOZ = 0x00000034;
  960. param->reg_DRV = 0x000000FA;
  961. param->reg_DQIDLY = 0x00000089;
  962. param->reg_FREQ = 0x000050C0;
  963. param->madj_max = 96;
  964. param->dll2_finetune_step = 4;
  965. switch (param->dram_chipid) {
  966. default:
  967. case AST_DRAM_512Mx16:
  968. case AST_DRAM_1Gx16:
  969. param->reg_AC2 = 0xCC009617 | trap_AC2;
  970. break;
  971. case AST_DRAM_2Gx16:
  972. param->reg_AC2 = 0xCC009622 | trap_AC2;
  973. break;
  974. case AST_DRAM_4Gx16:
  975. param->reg_AC2 = 0xCC00963F | trap_AC2;
  976. break;
  977. }
  978. break;
  979. case 456:
  980. moutdwm(ast, 0x1E6E2020, 0x0230);
  981. param->wodt = 0;
  982. param->reg_AC1 = 0x33302926;
  983. param->reg_AC2 = 0xCD44961A;
  984. param->reg_DQSIC = 0x000000FC;
  985. param->reg_MRS = 0x00081830;
  986. param->reg_EMRS = 0x00000000;
  987. param->reg_IOZ = 0x00000045;
  988. param->reg_DQIDLY = 0x00000097;
  989. param->reg_FREQ = 0x000052C0;
  990. param->madj_max = 88;
  991. param->dll2_finetune_step = 4;
  992. break;
  993. case 504:
  994. moutdwm(ast, 0x1E6E2020, 0x0270);
  995. param->wodt = 1;
  996. param->reg_AC1 = 0x33302926;
  997. param->reg_AC2 = 0xDE44A61D;
  998. param->reg_DQSIC = 0x00000117;
  999. param->reg_MRS = 0x00081A30;
  1000. param->reg_EMRS = 0x00000000;
  1001. param->reg_IOZ = 0x070000BB;
  1002. param->reg_DQIDLY = 0x000000A0;
  1003. param->reg_FREQ = 0x000054C0;
  1004. param->madj_max = 79;
  1005. param->dll2_finetune_step = 4;
  1006. break;
  1007. case 528:
  1008. moutdwm(ast, 0x1E6E2020, 0x0290);
  1009. param->wodt = 1;
  1010. param->rodt = 1;
  1011. param->reg_AC1 = 0x33302926;
  1012. param->reg_AC2 = 0xEF44B61E;
  1013. param->reg_DQSIC = 0x00000125;
  1014. param->reg_MRS = 0x00081A30;
  1015. param->reg_EMRS = 0x00000040;
  1016. param->reg_DRV = 0x000000F5;
  1017. param->reg_IOZ = 0x00000023;
  1018. param->reg_DQIDLY = 0x00000088;
  1019. param->reg_FREQ = 0x000055C0;
  1020. param->madj_max = 76;
  1021. param->dll2_finetune_step = 3;
  1022. break;
  1023. case 576:
  1024. moutdwm(ast, 0x1E6E2020, 0x0140);
  1025. param->reg_MADJ = 0x00136868;
  1026. param->reg_SADJ = 0x00004534;
  1027. param->wodt = 1;
  1028. param->rodt = 1;
  1029. param->reg_AC1 = 0x33302A37;
  1030. param->reg_AC2 = 0xEF56B61E;
  1031. param->reg_DQSIC = 0x0000013F;
  1032. param->reg_MRS = 0x00101A50;
  1033. param->reg_EMRS = 0x00000040;
  1034. param->reg_DRV = 0x000000FA;
  1035. param->reg_IOZ = 0x00000023;
  1036. param->reg_DQIDLY = 0x00000078;
  1037. param->reg_FREQ = 0x000057C0;
  1038. param->madj_max = 136;
  1039. param->dll2_finetune_step = 3;
  1040. break;
  1041. case 600:
  1042. moutdwm(ast, 0x1E6E2020, 0x02E1);
  1043. param->reg_MADJ = 0x00136868;
  1044. param->reg_SADJ = 0x00004534;
  1045. param->wodt = 1;
  1046. param->rodt = 1;
  1047. param->reg_AC1 = 0x32302A37;
  1048. param->reg_AC2 = 0xDF56B61F;
  1049. param->reg_DQSIC = 0x0000014D;
  1050. param->reg_MRS = 0x00101A50;
  1051. param->reg_EMRS = 0x00000004;
  1052. param->reg_DRV = 0x000000F5;
  1053. param->reg_IOZ = 0x00000023;
  1054. param->reg_DQIDLY = 0x00000078;
  1055. param->reg_FREQ = 0x000058C0;
  1056. param->madj_max = 132;
  1057. param->dll2_finetune_step = 3;
  1058. break;
  1059. case 624:
  1060. moutdwm(ast, 0x1E6E2020, 0x0160);
  1061. param->reg_MADJ = 0x00136868;
  1062. param->reg_SADJ = 0x00004534;
  1063. param->wodt = 1;
  1064. param->rodt = 1;
  1065. param->reg_AC1 = 0x32302A37;
  1066. param->reg_AC2 = 0xEF56B621;
  1067. param->reg_DQSIC = 0x0000015A;
  1068. param->reg_MRS = 0x02101A50;
  1069. param->reg_EMRS = 0x00000004;
  1070. param->reg_DRV = 0x000000F5;
  1071. param->reg_IOZ = 0x00000034;
  1072. param->reg_DQIDLY = 0x00000078;
  1073. param->reg_FREQ = 0x000059C0;
  1074. param->madj_max = 128;
  1075. param->dll2_finetune_step = 3;
  1076. break;
  1077. } /* switch freq */
  1078. switch (param->dram_chipid) {
  1079. case AST_DRAM_512Mx16:
  1080. param->dram_config = 0x130;
  1081. break;
  1082. default:
  1083. case AST_DRAM_1Gx16:
  1084. param->dram_config = 0x131;
  1085. break;
  1086. case AST_DRAM_2Gx16:
  1087. param->dram_config = 0x132;
  1088. break;
  1089. case AST_DRAM_4Gx16:
  1090. param->dram_config = 0x133;
  1091. break;
  1092. }; /* switch size */
  1093. switch (param->vram_size) {
  1094. default:
  1095. case AST_VIDMEM_SIZE_8M:
  1096. param->dram_config |= 0x00;
  1097. break;
  1098. case AST_VIDMEM_SIZE_16M:
  1099. param->dram_config |= 0x04;
  1100. break;
  1101. case AST_VIDMEM_SIZE_32M:
  1102. param->dram_config |= 0x08;
  1103. break;
  1104. case AST_VIDMEM_SIZE_64M:
  1105. param->dram_config |= 0x0c;
  1106. break;
  1107. }
  1108. }
  1109. static void ddr3_init(struct ast_private *ast, struct ast2300_dram_param *param)
  1110. {
  1111. u32 data, data2;
  1112. moutdwm(ast, 0x1E6E0000, 0xFC600309);
  1113. moutdwm(ast, 0x1E6E0018, 0x00000100);
  1114. moutdwm(ast, 0x1E6E0024, 0x00000000);
  1115. moutdwm(ast, 0x1E6E0034, 0x00000000);
  1116. udelay(10);
  1117. moutdwm(ast, 0x1E6E0064, param->reg_MADJ);
  1118. moutdwm(ast, 0x1E6E0068, param->reg_SADJ);
  1119. udelay(10);
  1120. moutdwm(ast, 0x1E6E0064, param->reg_MADJ | 0xC0000);
  1121. udelay(10);
  1122. moutdwm(ast, 0x1E6E0004, param->dram_config);
  1123. moutdwm(ast, 0x1E6E0008, 0x90040f);
  1124. moutdwm(ast, 0x1E6E0010, param->reg_AC1);
  1125. moutdwm(ast, 0x1E6E0014, param->reg_AC2);
  1126. moutdwm(ast, 0x1E6E0020, param->reg_DQSIC);
  1127. moutdwm(ast, 0x1E6E0080, 0x00000000);
  1128. moutdwm(ast, 0x1E6E0084, 0x00000000);
  1129. moutdwm(ast, 0x1E6E0088, param->reg_DQIDLY);
  1130. moutdwm(ast, 0x1E6E0018, 0x4040A170);
  1131. moutdwm(ast, 0x1E6E0018, 0x20402370);
  1132. moutdwm(ast, 0x1E6E0038, 0x00000000);
  1133. moutdwm(ast, 0x1E6E0040, 0xFF444444);
  1134. moutdwm(ast, 0x1E6E0044, 0x22222222);
  1135. moutdwm(ast, 0x1E6E0048, 0x22222222);
  1136. moutdwm(ast, 0x1E6E004C, 0x00000002);
  1137. moutdwm(ast, 0x1E6E0050, 0x80000000);
  1138. moutdwm(ast, 0x1E6E0050, 0x00000000);
  1139. moutdwm(ast, 0x1E6E0054, 0);
  1140. moutdwm(ast, 0x1E6E0060, param->reg_DRV);
  1141. moutdwm(ast, 0x1E6E006C, param->reg_IOZ);
  1142. moutdwm(ast, 0x1E6E0070, 0x00000000);
  1143. moutdwm(ast, 0x1E6E0074, 0x00000000);
  1144. moutdwm(ast, 0x1E6E0078, 0x00000000);
  1145. moutdwm(ast, 0x1E6E007C, 0x00000000);
  1146. /* Wait MCLK2X lock to MCLK */
  1147. do {
  1148. data = mindwm(ast, 0x1E6E001C);
  1149. } while (!(data & 0x08000000));
  1150. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1151. moutdwm(ast, 0x1E6E000C, 0x00005C04);
  1152. udelay(10);
  1153. moutdwm(ast, 0x1E6E000C, 0x00000000);
  1154. moutdwm(ast, 0x1E6E0034, 0x00000000);
  1155. data = mindwm(ast, 0x1E6E001C);
  1156. data = (data >> 8) & 0xff;
  1157. while ((data & 0x08) || ((data & 0x7) < 2) || (data < 4)) {
  1158. data2 = (mindwm(ast, 0x1E6E0064) & 0xfff3ffff) + 4;
  1159. if ((data2 & 0xff) > param->madj_max) {
  1160. break;
  1161. }
  1162. moutdwm(ast, 0x1E6E0064, data2);
  1163. if (data2 & 0x00100000) {
  1164. data2 = ((data2 & 0xff) >> 3) + 3;
  1165. } else {
  1166. data2 = ((data2 & 0xff) >> 2) + 5;
  1167. }
  1168. data = mindwm(ast, 0x1E6E0068) & 0xffff00ff;
  1169. data2 += data & 0xff;
  1170. data = data | (data2 << 8);
  1171. moutdwm(ast, 0x1E6E0068, data);
  1172. udelay(10);
  1173. moutdwm(ast, 0x1E6E0064, mindwm(ast, 0x1E6E0064) | 0xC0000);
  1174. udelay(10);
  1175. data = mindwm(ast, 0x1E6E0018) & 0xfffff1ff;
  1176. moutdwm(ast, 0x1E6E0018, data);
  1177. data = data | 0x200;
  1178. moutdwm(ast, 0x1E6E0018, data);
  1179. do {
  1180. data = mindwm(ast, 0x1E6E001C);
  1181. } while (!(data & 0x08000000));
  1182. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1183. moutdwm(ast, 0x1E6E000C, 0x00005C04);
  1184. udelay(10);
  1185. moutdwm(ast, 0x1E6E000C, 0x00000000);
  1186. moutdwm(ast, 0x1E6E0034, 0x00000000);
  1187. data = mindwm(ast, 0x1E6E001C);
  1188. data = (data >> 8) & 0xff;
  1189. }
  1190. data = mindwm(ast, 0x1E6E0018) | 0xC00;
  1191. moutdwm(ast, 0x1E6E0018, data);
  1192. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1193. moutdwm(ast, 0x1E6E000C, 0x00000040);
  1194. udelay(50);
  1195. /* Mode Register Setting */
  1196. moutdwm(ast, 0x1E6E002C, param->reg_MRS | 0x100);
  1197. moutdwm(ast, 0x1E6E0030, param->reg_EMRS);
  1198. moutdwm(ast, 0x1E6E0028, 0x00000005);
  1199. moutdwm(ast, 0x1E6E0028, 0x00000007);
  1200. moutdwm(ast, 0x1E6E0028, 0x00000003);
  1201. moutdwm(ast, 0x1E6E0028, 0x00000001);
  1202. moutdwm(ast, 0x1E6E002C, param->reg_MRS);
  1203. moutdwm(ast, 0x1E6E000C, 0x00005C08);
  1204. moutdwm(ast, 0x1E6E0028, 0x00000001);
  1205. moutdwm(ast, 0x1E6E000C, 0x7FFF5C01);
  1206. data = 0;
  1207. if (param->wodt) {
  1208. data = 0x300;
  1209. }
  1210. if (param->rodt) {
  1211. data = data | 0x3000 | ((param->reg_AC2 & 0x60000) >> 3);
  1212. }
  1213. moutdwm(ast, 0x1E6E0034, data | 0x3);
  1214. /* Wait DQI delay lock */
  1215. do {
  1216. data = mindwm(ast, 0x1E6E0080);
  1217. } while (!(data & 0x40000000));
  1218. /* Wait DQSI delay lock */
  1219. do {
  1220. data = mindwm(ast, 0x1E6E0020);
  1221. } while (!(data & 0x00000800));
  1222. /* Calibrate the DQSI delay */
  1223. cbr_dll2(ast, param);
  1224. moutdwm(ast, 0x1E6E0120, param->reg_FREQ);
  1225. /* ECC Memory Initialization */
  1226. #ifdef ECC
  1227. moutdwm(ast, 0x1E6E007C, 0x00000000);
  1228. moutdwm(ast, 0x1E6E0070, 0x221);
  1229. do {
  1230. data = mindwm(ast, 0x1E6E0070);
  1231. } while (!(data & 0x00001000));
  1232. moutdwm(ast, 0x1E6E0070, 0x00000000);
  1233. moutdwm(ast, 0x1E6E0050, 0x80000000);
  1234. moutdwm(ast, 0x1E6E0050, 0x00000000);
  1235. #endif
  1236. }
  1237. static void get_ddr2_info(struct ast_private *ast, struct ast2300_dram_param *param)
  1238. {
  1239. u32 trap, trap_AC2, trap_MRS;
  1240. moutdwm(ast, 0x1E6E2000, 0x1688A8A8);
  1241. /* Ger trap info */
  1242. trap = (mindwm(ast, 0x1E6E2070) >> 25) & 0x3;
  1243. trap_AC2 = (trap << 20) | (trap << 16);
  1244. trap_AC2 += 0x00110000;
  1245. trap_MRS = 0x00000040 | (trap << 4);
  1246. param->reg_MADJ = 0x00034C4C;
  1247. param->reg_SADJ = 0x00001800;
  1248. param->reg_DRV = 0x000000F0;
  1249. param->reg_PERIOD = param->dram_freq;
  1250. param->rodt = 0;
  1251. switch (param->dram_freq) {
  1252. case 264:
  1253. moutdwm(ast, 0x1E6E2020, 0x0130);
  1254. param->wodt = 0;
  1255. param->reg_AC1 = 0x11101513;
  1256. param->reg_AC2 = 0x78117011;
  1257. param->reg_DQSIC = 0x00000092;
  1258. param->reg_MRS = 0x00000842;
  1259. param->reg_EMRS = 0x00000000;
  1260. param->reg_DRV = 0x000000F0;
  1261. param->reg_IOZ = 0x00000034;
  1262. param->reg_DQIDLY = 0x0000005A;
  1263. param->reg_FREQ = 0x00004AC0;
  1264. param->madj_max = 138;
  1265. param->dll2_finetune_step = 3;
  1266. break;
  1267. case 336:
  1268. moutdwm(ast, 0x1E6E2020, 0x0190);
  1269. param->wodt = 1;
  1270. param->reg_AC1 = 0x22202613;
  1271. param->reg_AC2 = 0xAA009016 | trap_AC2;
  1272. param->reg_DQSIC = 0x000000BA;
  1273. param->reg_MRS = 0x00000A02 | trap_MRS;
  1274. param->reg_EMRS = 0x00000040;
  1275. param->reg_DRV = 0x000000FA;
  1276. param->reg_IOZ = 0x00000034;
  1277. param->reg_DQIDLY = 0x00000074;
  1278. param->reg_FREQ = 0x00004DC0;
  1279. param->madj_max = 96;
  1280. param->dll2_finetune_step = 3;
  1281. break;
  1282. default:
  1283. case 396:
  1284. moutdwm(ast, 0x1E6E2020, 0x03F1);
  1285. param->wodt = 1;
  1286. param->rodt = 0;
  1287. param->reg_AC1 = 0x33302714;
  1288. param->reg_AC2 = 0xCC00B01B | trap_AC2;
  1289. param->reg_DQSIC = 0x000000E2;
  1290. param->reg_MRS = 0x00000C02 | trap_MRS;
  1291. param->reg_EMRS = 0x00000040;
  1292. param->reg_DRV = 0x000000FA;
  1293. param->reg_IOZ = 0x00000034;
  1294. param->reg_DQIDLY = 0x00000089;
  1295. param->reg_FREQ = 0x000050C0;
  1296. param->madj_max = 96;
  1297. param->dll2_finetune_step = 4;
  1298. switch (param->dram_chipid) {
  1299. case AST_DRAM_512Mx16:
  1300. param->reg_AC2 = 0xCC00B016 | trap_AC2;
  1301. break;
  1302. default:
  1303. case AST_DRAM_1Gx16:
  1304. param->reg_AC2 = 0xCC00B01B | trap_AC2;
  1305. break;
  1306. case AST_DRAM_2Gx16:
  1307. param->reg_AC2 = 0xCC00B02B | trap_AC2;
  1308. break;
  1309. case AST_DRAM_4Gx16:
  1310. param->reg_AC2 = 0xCC00B03F | trap_AC2;
  1311. break;
  1312. }
  1313. break;
  1314. case 408:
  1315. moutdwm(ast, 0x1E6E2020, 0x01F0);
  1316. param->wodt = 1;
  1317. param->rodt = 0;
  1318. param->reg_AC1 = 0x33302714;
  1319. param->reg_AC2 = 0xCC00B01B | trap_AC2;
  1320. param->reg_DQSIC = 0x000000E2;
  1321. param->reg_MRS = 0x00000C02 | trap_MRS;
  1322. param->reg_EMRS = 0x00000040;
  1323. param->reg_DRV = 0x000000FA;
  1324. param->reg_IOZ = 0x00000034;
  1325. param->reg_DQIDLY = 0x00000089;
  1326. param->reg_FREQ = 0x000050C0;
  1327. param->madj_max = 96;
  1328. param->dll2_finetune_step = 4;
  1329. switch (param->dram_chipid) {
  1330. case AST_DRAM_512Mx16:
  1331. param->reg_AC2 = 0xCC00B016 | trap_AC2;
  1332. break;
  1333. default:
  1334. case AST_DRAM_1Gx16:
  1335. param->reg_AC2 = 0xCC00B01B | trap_AC2;
  1336. break;
  1337. case AST_DRAM_2Gx16:
  1338. param->reg_AC2 = 0xCC00B02B | trap_AC2;
  1339. break;
  1340. case AST_DRAM_4Gx16:
  1341. param->reg_AC2 = 0xCC00B03F | trap_AC2;
  1342. break;
  1343. }
  1344. break;
  1345. case 456:
  1346. moutdwm(ast, 0x1E6E2020, 0x0230);
  1347. param->wodt = 0;
  1348. param->reg_AC1 = 0x33302815;
  1349. param->reg_AC2 = 0xCD44B01E;
  1350. param->reg_DQSIC = 0x000000FC;
  1351. param->reg_MRS = 0x00000E72;
  1352. param->reg_EMRS = 0x00000000;
  1353. param->reg_DRV = 0x00000000;
  1354. param->reg_IOZ = 0x00000034;
  1355. param->reg_DQIDLY = 0x00000097;
  1356. param->reg_FREQ = 0x000052C0;
  1357. param->madj_max = 88;
  1358. param->dll2_finetune_step = 3;
  1359. break;
  1360. case 504:
  1361. moutdwm(ast, 0x1E6E2020, 0x0261);
  1362. param->wodt = 1;
  1363. param->rodt = 1;
  1364. param->reg_AC1 = 0x33302815;
  1365. param->reg_AC2 = 0xDE44C022;
  1366. param->reg_DQSIC = 0x00000117;
  1367. param->reg_MRS = 0x00000E72;
  1368. param->reg_EMRS = 0x00000040;
  1369. param->reg_DRV = 0x0000000A;
  1370. param->reg_IOZ = 0x00000045;
  1371. param->reg_DQIDLY = 0x000000A0;
  1372. param->reg_FREQ = 0x000054C0;
  1373. param->madj_max = 79;
  1374. param->dll2_finetune_step = 3;
  1375. break;
  1376. case 528:
  1377. moutdwm(ast, 0x1E6E2020, 0x0120);
  1378. param->wodt = 1;
  1379. param->rodt = 1;
  1380. param->reg_AC1 = 0x33302815;
  1381. param->reg_AC2 = 0xEF44D024;
  1382. param->reg_DQSIC = 0x00000125;
  1383. param->reg_MRS = 0x00000E72;
  1384. param->reg_EMRS = 0x00000004;
  1385. param->reg_DRV = 0x000000F9;
  1386. param->reg_IOZ = 0x00000045;
  1387. param->reg_DQIDLY = 0x000000A7;
  1388. param->reg_FREQ = 0x000055C0;
  1389. param->madj_max = 76;
  1390. param->dll2_finetune_step = 3;
  1391. break;
  1392. case 552:
  1393. moutdwm(ast, 0x1E6E2020, 0x02A1);
  1394. param->wodt = 1;
  1395. param->rodt = 1;
  1396. param->reg_AC1 = 0x43402915;
  1397. param->reg_AC2 = 0xFF44E025;
  1398. param->reg_DQSIC = 0x00000132;
  1399. param->reg_MRS = 0x00000E72;
  1400. param->reg_EMRS = 0x00000040;
  1401. param->reg_DRV = 0x0000000A;
  1402. param->reg_IOZ = 0x00000045;
  1403. param->reg_DQIDLY = 0x000000AD;
  1404. param->reg_FREQ = 0x000056C0;
  1405. param->madj_max = 76;
  1406. param->dll2_finetune_step = 3;
  1407. break;
  1408. case 576:
  1409. moutdwm(ast, 0x1E6E2020, 0x0140);
  1410. param->wodt = 1;
  1411. param->rodt = 1;
  1412. param->reg_AC1 = 0x43402915;
  1413. param->reg_AC2 = 0xFF44E027;
  1414. param->reg_DQSIC = 0x0000013F;
  1415. param->reg_MRS = 0x00000E72;
  1416. param->reg_EMRS = 0x00000004;
  1417. param->reg_DRV = 0x000000F5;
  1418. param->reg_IOZ = 0x00000045;
  1419. param->reg_DQIDLY = 0x000000B3;
  1420. param->reg_FREQ = 0x000057C0;
  1421. param->madj_max = 76;
  1422. param->dll2_finetune_step = 3;
  1423. break;
  1424. }
  1425. switch (param->dram_chipid) {
  1426. case AST_DRAM_512Mx16:
  1427. param->dram_config = 0x100;
  1428. break;
  1429. default:
  1430. case AST_DRAM_1Gx16:
  1431. param->dram_config = 0x121;
  1432. break;
  1433. case AST_DRAM_2Gx16:
  1434. param->dram_config = 0x122;
  1435. break;
  1436. case AST_DRAM_4Gx16:
  1437. param->dram_config = 0x123;
  1438. break;
  1439. }; /* switch size */
  1440. switch (param->vram_size) {
  1441. default:
  1442. case AST_VIDMEM_SIZE_8M:
  1443. param->dram_config |= 0x00;
  1444. break;
  1445. case AST_VIDMEM_SIZE_16M:
  1446. param->dram_config |= 0x04;
  1447. break;
  1448. case AST_VIDMEM_SIZE_32M:
  1449. param->dram_config |= 0x08;
  1450. break;
  1451. case AST_VIDMEM_SIZE_64M:
  1452. param->dram_config |= 0x0c;
  1453. break;
  1454. }
  1455. }
  1456. static void ddr2_init(struct ast_private *ast, struct ast2300_dram_param *param)
  1457. {
  1458. u32 data, data2;
  1459. moutdwm(ast, 0x1E6E0000, 0xFC600309);
  1460. moutdwm(ast, 0x1E6E0018, 0x00000100);
  1461. moutdwm(ast, 0x1E6E0024, 0x00000000);
  1462. moutdwm(ast, 0x1E6E0064, param->reg_MADJ);
  1463. moutdwm(ast, 0x1E6E0068, param->reg_SADJ);
  1464. udelay(10);
  1465. moutdwm(ast, 0x1E6E0064, param->reg_MADJ | 0xC0000);
  1466. udelay(10);
  1467. moutdwm(ast, 0x1E6E0004, param->dram_config);
  1468. moutdwm(ast, 0x1E6E0008, 0x90040f);
  1469. moutdwm(ast, 0x1E6E0010, param->reg_AC1);
  1470. moutdwm(ast, 0x1E6E0014, param->reg_AC2);
  1471. moutdwm(ast, 0x1E6E0020, param->reg_DQSIC);
  1472. moutdwm(ast, 0x1E6E0080, 0x00000000);
  1473. moutdwm(ast, 0x1E6E0084, 0x00000000);
  1474. moutdwm(ast, 0x1E6E0088, param->reg_DQIDLY);
  1475. moutdwm(ast, 0x1E6E0018, 0x4040A130);
  1476. moutdwm(ast, 0x1E6E0018, 0x20402330);
  1477. moutdwm(ast, 0x1E6E0038, 0x00000000);
  1478. moutdwm(ast, 0x1E6E0040, 0xFF808000);
  1479. moutdwm(ast, 0x1E6E0044, 0x88848466);
  1480. moutdwm(ast, 0x1E6E0048, 0x44440008);
  1481. moutdwm(ast, 0x1E6E004C, 0x00000000);
  1482. moutdwm(ast, 0x1E6E0050, 0x80000000);
  1483. moutdwm(ast, 0x1E6E0050, 0x00000000);
  1484. moutdwm(ast, 0x1E6E0054, 0);
  1485. moutdwm(ast, 0x1E6E0060, param->reg_DRV);
  1486. moutdwm(ast, 0x1E6E006C, param->reg_IOZ);
  1487. moutdwm(ast, 0x1E6E0070, 0x00000000);
  1488. moutdwm(ast, 0x1E6E0074, 0x00000000);
  1489. moutdwm(ast, 0x1E6E0078, 0x00000000);
  1490. moutdwm(ast, 0x1E6E007C, 0x00000000);
  1491. /* Wait MCLK2X lock to MCLK */
  1492. do {
  1493. data = mindwm(ast, 0x1E6E001C);
  1494. } while (!(data & 0x08000000));
  1495. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1496. moutdwm(ast, 0x1E6E000C, 0x00005C04);
  1497. udelay(10);
  1498. moutdwm(ast, 0x1E6E000C, 0x00000000);
  1499. moutdwm(ast, 0x1E6E0034, 0x00000000);
  1500. data = mindwm(ast, 0x1E6E001C);
  1501. data = (data >> 8) & 0xff;
  1502. while ((data & 0x08) || ((data & 0x7) < 2) || (data < 4)) {
  1503. data2 = (mindwm(ast, 0x1E6E0064) & 0xfff3ffff) + 4;
  1504. if ((data2 & 0xff) > param->madj_max) {
  1505. break;
  1506. }
  1507. moutdwm(ast, 0x1E6E0064, data2);
  1508. if (data2 & 0x00100000) {
  1509. data2 = ((data2 & 0xff) >> 3) + 3;
  1510. } else {
  1511. data2 = ((data2 & 0xff) >> 2) + 5;
  1512. }
  1513. data = mindwm(ast, 0x1E6E0068) & 0xffff00ff;
  1514. data2 += data & 0xff;
  1515. data = data | (data2 << 8);
  1516. moutdwm(ast, 0x1E6E0068, data);
  1517. udelay(10);
  1518. moutdwm(ast, 0x1E6E0064, mindwm(ast, 0x1E6E0064) | 0xC0000);
  1519. udelay(10);
  1520. data = mindwm(ast, 0x1E6E0018) & 0xfffff1ff;
  1521. moutdwm(ast, 0x1E6E0018, data);
  1522. data = data | 0x200;
  1523. moutdwm(ast, 0x1E6E0018, data);
  1524. do {
  1525. data = mindwm(ast, 0x1E6E001C);
  1526. } while (!(data & 0x08000000));
  1527. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1528. moutdwm(ast, 0x1E6E000C, 0x00005C04);
  1529. udelay(10);
  1530. moutdwm(ast, 0x1E6E000C, 0x00000000);
  1531. moutdwm(ast, 0x1E6E0034, 0x00000000);
  1532. data = mindwm(ast, 0x1E6E001C);
  1533. data = (data >> 8) & 0xff;
  1534. }
  1535. data = mindwm(ast, 0x1E6E0018) | 0xC00;
  1536. moutdwm(ast, 0x1E6E0018, data);
  1537. moutdwm(ast, 0x1E6E0034, 0x00000001);
  1538. moutdwm(ast, 0x1E6E000C, 0x00000000);
  1539. udelay(50);
  1540. /* Mode Register Setting */
  1541. moutdwm(ast, 0x1E6E002C, param->reg_MRS | 0x100);
  1542. moutdwm(ast, 0x1E6E0030, param->reg_EMRS);
  1543. moutdwm(ast, 0x1E6E0028, 0x00000005);
  1544. moutdwm(ast, 0x1E6E0028, 0x00000007);
  1545. moutdwm(ast, 0x1E6E0028, 0x00000003);
  1546. moutdwm(ast, 0x1E6E0028, 0x00000001);
  1547. moutdwm(ast, 0x1E6E000C, 0x00005C08);
  1548. moutdwm(ast, 0x1E6E002C, param->reg_MRS);
  1549. moutdwm(ast, 0x1E6E0028, 0x00000001);
  1550. moutdwm(ast, 0x1E6E0030, param->reg_EMRS | 0x380);
  1551. moutdwm(ast, 0x1E6E0028, 0x00000003);
  1552. moutdwm(ast, 0x1E6E0030, param->reg_EMRS);
  1553. moutdwm(ast, 0x1E6E0028, 0x00000003);
  1554. moutdwm(ast, 0x1E6E000C, 0x7FFF5C01);
  1555. data = 0;
  1556. if (param->wodt) {
  1557. data = 0x500;
  1558. }
  1559. if (param->rodt) {
  1560. data = data | 0x3000 | ((param->reg_AC2 & 0x60000) >> 3);
  1561. }
  1562. moutdwm(ast, 0x1E6E0034, data | 0x3);
  1563. moutdwm(ast, 0x1E6E0120, param->reg_FREQ);
  1564. /* Wait DQI delay lock */
  1565. do {
  1566. data = mindwm(ast, 0x1E6E0080);
  1567. } while (!(data & 0x40000000));
  1568. /* Wait DQSI delay lock */
  1569. do {
  1570. data = mindwm(ast, 0x1E6E0020);
  1571. } while (!(data & 0x00000800));
  1572. /* Calibrate the DQSI delay */
  1573. cbr_dll2(ast, param);
  1574. /* ECC Memory Initialization */
  1575. #ifdef ECC
  1576. moutdwm(ast, 0x1E6E007C, 0x00000000);
  1577. moutdwm(ast, 0x1E6E0070, 0x221);
  1578. do {
  1579. data = mindwm(ast, 0x1E6E0070);
  1580. } while (!(data & 0x00001000));
  1581. moutdwm(ast, 0x1E6E0070, 0x00000000);
  1582. moutdwm(ast, 0x1E6E0050, 0x80000000);
  1583. moutdwm(ast, 0x1E6E0050, 0x00000000);
  1584. #endif
  1585. }
  1586. static void ast_init_dram_2300(struct drm_device *dev)
  1587. {
  1588. struct ast_private *ast = dev->dev_private;
  1589. struct ast2300_dram_param param;
  1590. u32 temp;
  1591. u8 reg;
  1592. reg = ast_get_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xd0, 0xff);
  1593. if ((reg & 0x80) == 0) {/* vga only */
  1594. ast_write32(ast, 0xf004, 0x1e6e0000);
  1595. ast_write32(ast, 0xf000, 0x1);
  1596. ast_write32(ast, 0x12000, 0x1688a8a8);
  1597. do {
  1598. ;
  1599. } while (ast_read32(ast, 0x12000) != 0x1);
  1600. ast_write32(ast, 0x10000, 0xfc600309);
  1601. do {
  1602. ;
  1603. } while (ast_read32(ast, 0x10000) != 0x1);
  1604. /* Slow down CPU/AHB CLK in VGA only mode */
  1605. temp = ast_read32(ast, 0x12008);
  1606. temp |= 0x73;
  1607. ast_write32(ast, 0x12008, temp);
  1608. param.dram_type = AST_DDR3;
  1609. if (temp & 0x01000000)
  1610. param.dram_type = AST_DDR2;
  1611. param.dram_chipid = ast->dram_type;
  1612. param.dram_freq = ast->mclk;
  1613. param.vram_size = ast->vram_size;
  1614. if (param.dram_type == AST_DDR3) {
  1615. get_ddr3_info(ast, &param);
  1616. ddr3_init(ast, &param);
  1617. } else {
  1618. get_ddr2_info(ast, &param);
  1619. ddr2_init(ast, &param);
  1620. }
  1621. temp = mindwm(ast, 0x1e6e2040);
  1622. moutdwm(ast, 0x1e6e2040, temp | 0x40);
  1623. }
  1624. /* wait ready */
  1625. do {
  1626. reg = ast_get_index_reg_mask(ast, AST_IO_CRTC_PORT, 0xd0, 0xff);
  1627. } while ((reg & 0x40) == 0);
  1628. }