hw.c 75 KB

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  1. /*
  2. * Copyright 1998-2008 VIA Technologies, Inc. All Rights Reserved.
  3. * Copyright 2001-2008 S3 Graphics, Inc. All Rights Reserved.
  4. * This program is free software; you can redistribute it and/or
  5. * modify it under the terms of the GNU General Public
  6. * License as published by the Free Software Foundation;
  7. * either version 2, or (at your option) any later version.
  8. * This program is distributed in the hope that it will be useful,
  9. * but WITHOUT ANY WARRANTIES OR REPRESENTATIONS; without even
  10. * the implied warranty of MERCHANTABILITY or FITNESS FOR
  11. * A PARTICULAR PURPOSE.See the GNU General Public License
  12. * for more details.
  13. * You should have received a copy of the GNU General Public License
  14. * along with this program; if not, write to the Free Software
  15. * Foundation, Inc.,
  16. * 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA.
  17. */
  18. #include "via-core.h"
  19. #include "global.h"
  20. static struct pll_map pll_value[] = {
  21. {CLK_25_175M, CLE266_PLL_25_175M, K800_PLL_25_175M,
  22. CX700_25_175M, VX855_25_175M},
  23. {CLK_29_581M, CLE266_PLL_29_581M, K800_PLL_29_581M,
  24. CX700_29_581M, VX855_29_581M},
  25. {CLK_26_880M, CLE266_PLL_26_880M, K800_PLL_26_880M,
  26. CX700_26_880M, VX855_26_880M},
  27. {CLK_31_490M, CLE266_PLL_31_490M, K800_PLL_31_490M,
  28. CX700_31_490M, VX855_31_490M},
  29. {CLK_31_500M, CLE266_PLL_31_500M, K800_PLL_31_500M,
  30. CX700_31_500M, VX855_31_500M},
  31. {CLK_31_728M, CLE266_PLL_31_728M, K800_PLL_31_728M,
  32. CX700_31_728M, VX855_31_728M},
  33. {CLK_32_668M, CLE266_PLL_32_668M, K800_PLL_32_668M,
  34. CX700_32_668M, VX855_32_668M},
  35. {CLK_36_000M, CLE266_PLL_36_000M, K800_PLL_36_000M,
  36. CX700_36_000M, VX855_36_000M},
  37. {CLK_40_000M, CLE266_PLL_40_000M, K800_PLL_40_000M,
  38. CX700_40_000M, VX855_40_000M},
  39. {CLK_41_291M, CLE266_PLL_41_291M, K800_PLL_41_291M,
  40. CX700_41_291M, VX855_41_291M},
  41. {CLK_43_163M, CLE266_PLL_43_163M, K800_PLL_43_163M,
  42. CX700_43_163M, VX855_43_163M},
  43. {CLK_45_250M, CLE266_PLL_45_250M, K800_PLL_45_250M,
  44. CX700_45_250M, VX855_45_250M},
  45. {CLK_46_000M, CLE266_PLL_46_000M, K800_PLL_46_000M,
  46. CX700_46_000M, VX855_46_000M},
  47. {CLK_46_996M, CLE266_PLL_46_996M, K800_PLL_46_996M,
  48. CX700_46_996M, VX855_46_996M},
  49. {CLK_48_000M, CLE266_PLL_48_000M, K800_PLL_48_000M,
  50. CX700_48_000M, VX855_48_000M},
  51. {CLK_48_875M, CLE266_PLL_48_875M, K800_PLL_48_875M,
  52. CX700_48_875M, VX855_48_875M},
  53. {CLK_49_500M, CLE266_PLL_49_500M, K800_PLL_49_500M,
  54. CX700_49_500M, VX855_49_500M},
  55. {CLK_52_406M, CLE266_PLL_52_406M, K800_PLL_52_406M,
  56. CX700_52_406M, VX855_52_406M},
  57. {CLK_52_977M, CLE266_PLL_52_977M, K800_PLL_52_977M,
  58. CX700_52_977M, VX855_52_977M},
  59. {CLK_56_250M, CLE266_PLL_56_250M, K800_PLL_56_250M,
  60. CX700_56_250M, VX855_56_250M},
  61. {CLK_57_275M, 0, 0, 0, VX855_57_275M},
  62. {CLK_60_466M, CLE266_PLL_60_466M, K800_PLL_60_466M,
  63. CX700_60_466M, VX855_60_466M},
  64. {CLK_61_500M, CLE266_PLL_61_500M, K800_PLL_61_500M,
  65. CX700_61_500M, VX855_61_500M},
  66. {CLK_65_000M, CLE266_PLL_65_000M, K800_PLL_65_000M,
  67. CX700_65_000M, VX855_65_000M},
  68. {CLK_65_178M, CLE266_PLL_65_178M, K800_PLL_65_178M,
  69. CX700_65_178M, VX855_65_178M},
  70. {CLK_66_750M, CLE266_PLL_66_750M, K800_PLL_66_750M,
  71. CX700_66_750M, VX855_66_750M},
  72. {CLK_68_179M, CLE266_PLL_68_179M, K800_PLL_68_179M,
  73. CX700_68_179M, VX855_68_179M},
  74. {CLK_69_924M, CLE266_PLL_69_924M, K800_PLL_69_924M,
  75. CX700_69_924M, VX855_69_924M},
  76. {CLK_70_159M, CLE266_PLL_70_159M, K800_PLL_70_159M,
  77. CX700_70_159M, VX855_70_159M},
  78. {CLK_72_000M, CLE266_PLL_72_000M, K800_PLL_72_000M,
  79. CX700_72_000M, VX855_72_000M},
  80. {CLK_78_750M, CLE266_PLL_78_750M, K800_PLL_78_750M,
  81. CX700_78_750M, VX855_78_750M},
  82. {CLK_80_136M, CLE266_PLL_80_136M, K800_PLL_80_136M,
  83. CX700_80_136M, VX855_80_136M},
  84. {CLK_83_375M, CLE266_PLL_83_375M, K800_PLL_83_375M,
  85. CX700_83_375M, VX855_83_375M},
  86. {CLK_83_950M, CLE266_PLL_83_950M, K800_PLL_83_950M,
  87. CX700_83_950M, VX855_83_950M},
  88. {CLK_84_750M, CLE266_PLL_84_750M, K800_PLL_84_750M,
  89. CX700_84_750M, VX855_84_750M},
  90. {CLK_85_860M, CLE266_PLL_85_860M, K800_PLL_85_860M,
  91. CX700_85_860M, VX855_85_860M},
  92. {CLK_88_750M, CLE266_PLL_88_750M, K800_PLL_88_750M,
  93. CX700_88_750M, VX855_88_750M},
  94. {CLK_94_500M, CLE266_PLL_94_500M, K800_PLL_94_500M,
  95. CX700_94_500M, VX855_94_500M},
  96. {CLK_97_750M, CLE266_PLL_97_750M, K800_PLL_97_750M,
  97. CX700_97_750M, VX855_97_750M},
  98. {CLK_101_000M, CLE266_PLL_101_000M, K800_PLL_101_000M,
  99. CX700_101_000M, VX855_101_000M},
  100. {CLK_106_500M, CLE266_PLL_106_500M, K800_PLL_106_500M,
  101. CX700_106_500M, VX855_106_500M},
  102. {CLK_108_000M, CLE266_PLL_108_000M, K800_PLL_108_000M,
  103. CX700_108_000M, VX855_108_000M},
  104. {CLK_113_309M, CLE266_PLL_113_309M, K800_PLL_113_309M,
  105. CX700_113_309M, VX855_113_309M},
  106. {CLK_118_840M, CLE266_PLL_118_840M, K800_PLL_118_840M,
  107. CX700_118_840M, VX855_118_840M},
  108. {CLK_119_000M, CLE266_PLL_119_000M, K800_PLL_119_000M,
  109. CX700_119_000M, VX855_119_000M},
  110. {CLK_121_750M, CLE266_PLL_121_750M, K800_PLL_121_750M,
  111. CX700_121_750M, 0},
  112. {CLK_125_104M, CLE266_PLL_125_104M, K800_PLL_125_104M,
  113. CX700_125_104M, 0},
  114. {CLK_133_308M, CLE266_PLL_133_308M, K800_PLL_133_308M,
  115. CX700_133_308M, 0},
  116. {CLK_135_000M, CLE266_PLL_135_000M, K800_PLL_135_000M,
  117. CX700_135_000M, VX855_135_000M},
  118. {CLK_136_700M, CLE266_PLL_136_700M, K800_PLL_136_700M,
  119. CX700_136_700M, VX855_136_700M},
  120. {CLK_138_400M, CLE266_PLL_138_400M, K800_PLL_138_400M,
  121. CX700_138_400M, VX855_138_400M},
  122. {CLK_146_760M, CLE266_PLL_146_760M, K800_PLL_146_760M,
  123. CX700_146_760M, VX855_146_760M},
  124. {CLK_153_920M, CLE266_PLL_153_920M, K800_PLL_153_920M,
  125. CX700_153_920M, VX855_153_920M},
  126. {CLK_156_000M, CLE266_PLL_156_000M, K800_PLL_156_000M,
  127. CX700_156_000M, VX855_156_000M},
  128. {CLK_157_500M, CLE266_PLL_157_500M, K800_PLL_157_500M,
  129. CX700_157_500M, VX855_157_500M},
  130. {CLK_162_000M, CLE266_PLL_162_000M, K800_PLL_162_000M,
  131. CX700_162_000M, VX855_162_000M},
  132. {CLK_187_000M, CLE266_PLL_187_000M, K800_PLL_187_000M,
  133. CX700_187_000M, VX855_187_000M},
  134. {CLK_193_295M, CLE266_PLL_193_295M, K800_PLL_193_295M,
  135. CX700_193_295M, VX855_193_295M},
  136. {CLK_202_500M, CLE266_PLL_202_500M, K800_PLL_202_500M,
  137. CX700_202_500M, VX855_202_500M},
  138. {CLK_204_000M, CLE266_PLL_204_000M, K800_PLL_204_000M,
  139. CX700_204_000M, VX855_204_000M},
  140. {CLK_218_500M, CLE266_PLL_218_500M, K800_PLL_218_500M,
  141. CX700_218_500M, VX855_218_500M},
  142. {CLK_234_000M, CLE266_PLL_234_000M, K800_PLL_234_000M,
  143. CX700_234_000M, VX855_234_000M},
  144. {CLK_267_250M, CLE266_PLL_267_250M, K800_PLL_267_250M,
  145. CX700_267_250M, VX855_267_250M},
  146. {CLK_297_500M, CLE266_PLL_297_500M, K800_PLL_297_500M,
  147. CX700_297_500M, VX855_297_500M},
  148. {CLK_74_481M, CLE266_PLL_74_481M, K800_PLL_74_481M,
  149. CX700_74_481M, VX855_74_481M},
  150. {CLK_172_798M, CLE266_PLL_172_798M, K800_PLL_172_798M,
  151. CX700_172_798M, VX855_172_798M},
  152. {CLK_122_614M, CLE266_PLL_122_614M, K800_PLL_122_614M,
  153. CX700_122_614M, VX855_122_614M},
  154. {CLK_74_270M, CLE266_PLL_74_270M, K800_PLL_74_270M,
  155. CX700_74_270M, 0},
  156. {CLK_148_500M, CLE266_PLL_148_500M, K800_PLL_148_500M,
  157. CX700_148_500M, VX855_148_500M}
  158. };
  159. static struct fifo_depth_select display_fifo_depth_reg = {
  160. /* IGA1 FIFO Depth_Select */
  161. {IGA1_FIFO_DEPTH_SELECT_REG_NUM, {{SR17, 0, 7} } },
  162. /* IGA2 FIFO Depth_Select */
  163. {IGA2_FIFO_DEPTH_SELECT_REG_NUM,
  164. {{CR68, 4, 7}, {CR94, 7, 7}, {CR95, 7, 7} } }
  165. };
  166. static struct fifo_threshold_select fifo_threshold_select_reg = {
  167. /* IGA1 FIFO Threshold Select */
  168. {IGA1_FIFO_THRESHOLD_REG_NUM, {{SR16, 0, 5}, {SR16, 7, 7} } },
  169. /* IGA2 FIFO Threshold Select */
  170. {IGA2_FIFO_THRESHOLD_REG_NUM, {{CR68, 0, 3}, {CR95, 4, 6} } }
  171. };
  172. static struct fifo_high_threshold_select fifo_high_threshold_select_reg = {
  173. /* IGA1 FIFO High Threshold Select */
  174. {IGA1_FIFO_HIGH_THRESHOLD_REG_NUM, {{SR18, 0, 5}, {SR18, 7, 7} } },
  175. /* IGA2 FIFO High Threshold Select */
  176. {IGA2_FIFO_HIGH_THRESHOLD_REG_NUM, {{CR92, 0, 3}, {CR95, 0, 2} } }
  177. };
  178. static struct display_queue_expire_num display_queue_expire_num_reg = {
  179. /* IGA1 Display Queue Expire Num */
  180. {IGA1_DISPLAY_QUEUE_EXPIRE_NUM_REG_NUM, {{SR22, 0, 4} } },
  181. /* IGA2 Display Queue Expire Num */
  182. {IGA2_DISPLAY_QUEUE_EXPIRE_NUM_REG_NUM, {{CR94, 0, 6} } }
  183. };
  184. /* Definition Fetch Count Registers*/
  185. static struct fetch_count fetch_count_reg = {
  186. /* IGA1 Fetch Count Register */
  187. {IGA1_FETCH_COUNT_REG_NUM, {{SR1C, 0, 7}, {SR1D, 0, 1} } },
  188. /* IGA2 Fetch Count Register */
  189. {IGA2_FETCH_COUNT_REG_NUM, {{CR65, 0, 7}, {CR67, 2, 3} } }
  190. };
  191. static struct iga1_crtc_timing iga1_crtc_reg = {
  192. /* IGA1 Horizontal Total */
  193. {IGA1_HOR_TOTAL_REG_NUM, {{CR00, 0, 7}, {CR36, 3, 3} } },
  194. /* IGA1 Horizontal Addressable Video */
  195. {IGA1_HOR_ADDR_REG_NUM, {{CR01, 0, 7} } },
  196. /* IGA1 Horizontal Blank Start */
  197. {IGA1_HOR_BLANK_START_REG_NUM, {{CR02, 0, 7} } },
  198. /* IGA1 Horizontal Blank End */
  199. {IGA1_HOR_BLANK_END_REG_NUM,
  200. {{CR03, 0, 4}, {CR05, 7, 7}, {CR33, 5, 5} } },
  201. /* IGA1 Horizontal Sync Start */
  202. {IGA1_HOR_SYNC_START_REG_NUM, {{CR04, 0, 7}, {CR33, 4, 4} } },
  203. /* IGA1 Horizontal Sync End */
  204. {IGA1_HOR_SYNC_END_REG_NUM, {{CR05, 0, 4} } },
  205. /* IGA1 Vertical Total */
  206. {IGA1_VER_TOTAL_REG_NUM,
  207. {{CR06, 0, 7}, {CR07, 0, 0}, {CR07, 5, 5}, {CR35, 0, 0} } },
  208. /* IGA1 Vertical Addressable Video */
  209. {IGA1_VER_ADDR_REG_NUM,
  210. {{CR12, 0, 7}, {CR07, 1, 1}, {CR07, 6, 6}, {CR35, 2, 2} } },
  211. /* IGA1 Vertical Blank Start */
  212. {IGA1_VER_BLANK_START_REG_NUM,
  213. {{CR15, 0, 7}, {CR07, 3, 3}, {CR09, 5, 5}, {CR35, 3, 3} } },
  214. /* IGA1 Vertical Blank End */
  215. {IGA1_VER_BLANK_END_REG_NUM, {{CR16, 0, 7} } },
  216. /* IGA1 Vertical Sync Start */
  217. {IGA1_VER_SYNC_START_REG_NUM,
  218. {{CR10, 0, 7}, {CR07, 2, 2}, {CR07, 7, 7}, {CR35, 1, 1} } },
  219. /* IGA1 Vertical Sync End */
  220. {IGA1_VER_SYNC_END_REG_NUM, {{CR11, 0, 3} } }
  221. };
  222. static struct iga2_crtc_timing iga2_crtc_reg = {
  223. /* IGA2 Horizontal Total */
  224. {IGA2_HOR_TOTAL_REG_NUM, {{CR50, 0, 7}, {CR55, 0, 3} } },
  225. /* IGA2 Horizontal Addressable Video */
  226. {IGA2_HOR_ADDR_REG_NUM, {{CR51, 0, 7}, {CR55, 4, 6} } },
  227. /* IGA2 Horizontal Blank Start */
  228. {IGA2_HOR_BLANK_START_REG_NUM, {{CR52, 0, 7}, {CR54, 0, 2} } },
  229. /* IGA2 Horizontal Blank End */
  230. {IGA2_HOR_BLANK_END_REG_NUM,
  231. {{CR53, 0, 7}, {CR54, 3, 5}, {CR5D, 6, 6} } },
  232. /* IGA2 Horizontal Sync Start */
  233. {IGA2_HOR_SYNC_START_REG_NUM,
  234. {{CR56, 0, 7}, {CR54, 6, 7}, {CR5C, 7, 7}, {CR5D, 7, 7} } },
  235. /* IGA2 Horizontal Sync End */
  236. {IGA2_HOR_SYNC_END_REG_NUM, {{CR57, 0, 7}, {CR5C, 6, 6} } },
  237. /* IGA2 Vertical Total */
  238. {IGA2_VER_TOTAL_REG_NUM, {{CR58, 0, 7}, {CR5D, 0, 2} } },
  239. /* IGA2 Vertical Addressable Video */
  240. {IGA2_VER_ADDR_REG_NUM, {{CR59, 0, 7}, {CR5D, 3, 5} } },
  241. /* IGA2 Vertical Blank Start */
  242. {IGA2_VER_BLANK_START_REG_NUM, {{CR5A, 0, 7}, {CR5C, 0, 2} } },
  243. /* IGA2 Vertical Blank End */
  244. {IGA2_VER_BLANK_END_REG_NUM, {{CR5B, 0, 7}, {CR5C, 3, 5} } },
  245. /* IGA2 Vertical Sync Start */
  246. {IGA2_VER_SYNC_START_REG_NUM, {{CR5E, 0, 7}, {CR5F, 5, 7} } },
  247. /* IGA2 Vertical Sync End */
  248. {IGA2_VER_SYNC_END_REG_NUM, {{CR5F, 0, 4} } }
  249. };
  250. static struct rgbLUT palLUT_table[] = {
  251. /* {R,G,B} */
  252. /* Index 0x00~0x03 */
  253. {0x00, 0x00, 0x00}, {0x00, 0x00, 0x2A}, {0x00, 0x2A, 0x00}, {0x00,
  254. 0x2A,
  255. 0x2A},
  256. /* Index 0x04~0x07 */
  257. {0x2A, 0x00, 0x00}, {0x2A, 0x00, 0x2A}, {0x2A, 0x15, 0x00}, {0x2A,
  258. 0x2A,
  259. 0x2A},
  260. /* Index 0x08~0x0B */
  261. {0x15, 0x15, 0x15}, {0x15, 0x15, 0x3F}, {0x15, 0x3F, 0x15}, {0x15,
  262. 0x3F,
  263. 0x3F},
  264. /* Index 0x0C~0x0F */
  265. {0x3F, 0x15, 0x15}, {0x3F, 0x15, 0x3F}, {0x3F, 0x3F, 0x15}, {0x3F,
  266. 0x3F,
  267. 0x3F},
  268. /* Index 0x10~0x13 */
  269. {0x00, 0x00, 0x00}, {0x05, 0x05, 0x05}, {0x08, 0x08, 0x08}, {0x0B,
  270. 0x0B,
  271. 0x0B},
  272. /* Index 0x14~0x17 */
  273. {0x0E, 0x0E, 0x0E}, {0x11, 0x11, 0x11}, {0x14, 0x14, 0x14}, {0x18,
  274. 0x18,
  275. 0x18},
  276. /* Index 0x18~0x1B */
  277. {0x1C, 0x1C, 0x1C}, {0x20, 0x20, 0x20}, {0x24, 0x24, 0x24}, {0x28,
  278. 0x28,
  279. 0x28},
  280. /* Index 0x1C~0x1F */
  281. {0x2D, 0x2D, 0x2D}, {0x32, 0x32, 0x32}, {0x38, 0x38, 0x38}, {0x3F,
  282. 0x3F,
  283. 0x3F},
  284. /* Index 0x20~0x23 */
  285. {0x00, 0x00, 0x3F}, {0x10, 0x00, 0x3F}, {0x1F, 0x00, 0x3F}, {0x2F,
  286. 0x00,
  287. 0x3F},
  288. /* Index 0x24~0x27 */
  289. {0x3F, 0x00, 0x3F}, {0x3F, 0x00, 0x2F}, {0x3F, 0x00, 0x1F}, {0x3F,
  290. 0x00,
  291. 0x10},
  292. /* Index 0x28~0x2B */
  293. {0x3F, 0x00, 0x00}, {0x3F, 0x10, 0x00}, {0x3F, 0x1F, 0x00}, {0x3F,
  294. 0x2F,
  295. 0x00},
  296. /* Index 0x2C~0x2F */
  297. {0x3F, 0x3F, 0x00}, {0x2F, 0x3F, 0x00}, {0x1F, 0x3F, 0x00}, {0x10,
  298. 0x3F,
  299. 0x00},
  300. /* Index 0x30~0x33 */
  301. {0x00, 0x3F, 0x00}, {0x00, 0x3F, 0x10}, {0x00, 0x3F, 0x1F}, {0x00,
  302. 0x3F,
  303. 0x2F},
  304. /* Index 0x34~0x37 */
  305. {0x00, 0x3F, 0x3F}, {0x00, 0x2F, 0x3F}, {0x00, 0x1F, 0x3F}, {0x00,
  306. 0x10,
  307. 0x3F},
  308. /* Index 0x38~0x3B */
  309. {0x1F, 0x1F, 0x3F}, {0x27, 0x1F, 0x3F}, {0x2F, 0x1F, 0x3F}, {0x37,
  310. 0x1F,
  311. 0x3F},
  312. /* Index 0x3C~0x3F */
  313. {0x3F, 0x1F, 0x3F}, {0x3F, 0x1F, 0x37}, {0x3F, 0x1F, 0x2F}, {0x3F,
  314. 0x1F,
  315. 0x27},
  316. /* Index 0x40~0x43 */
  317. {0x3F, 0x1F, 0x1F}, {0x3F, 0x27, 0x1F}, {0x3F, 0x2F, 0x1F}, {0x3F,
  318. 0x3F,
  319. 0x1F},
  320. /* Index 0x44~0x47 */
  321. {0x3F, 0x3F, 0x1F}, {0x37, 0x3F, 0x1F}, {0x2F, 0x3F, 0x1F}, {0x27,
  322. 0x3F,
  323. 0x1F},
  324. /* Index 0x48~0x4B */
  325. {0x1F, 0x3F, 0x1F}, {0x1F, 0x3F, 0x27}, {0x1F, 0x3F, 0x2F}, {0x1F,
  326. 0x3F,
  327. 0x37},
  328. /* Index 0x4C~0x4F */
  329. {0x1F, 0x3F, 0x3F}, {0x1F, 0x37, 0x3F}, {0x1F, 0x2F, 0x3F}, {0x1F,
  330. 0x27,
  331. 0x3F},
  332. /* Index 0x50~0x53 */
  333. {0x2D, 0x2D, 0x3F}, {0x31, 0x2D, 0x3F}, {0x36, 0x2D, 0x3F}, {0x3A,
  334. 0x2D,
  335. 0x3F},
  336. /* Index 0x54~0x57 */
  337. {0x3F, 0x2D, 0x3F}, {0x3F, 0x2D, 0x3A}, {0x3F, 0x2D, 0x36}, {0x3F,
  338. 0x2D,
  339. 0x31},
  340. /* Index 0x58~0x5B */
  341. {0x3F, 0x2D, 0x2D}, {0x3F, 0x31, 0x2D}, {0x3F, 0x36, 0x2D}, {0x3F,
  342. 0x3A,
  343. 0x2D},
  344. /* Index 0x5C~0x5F */
  345. {0x3F, 0x3F, 0x2D}, {0x3A, 0x3F, 0x2D}, {0x36, 0x3F, 0x2D}, {0x31,
  346. 0x3F,
  347. 0x2D},
  348. /* Index 0x60~0x63 */
  349. {0x2D, 0x3F, 0x2D}, {0x2D, 0x3F, 0x31}, {0x2D, 0x3F, 0x36}, {0x2D,
  350. 0x3F,
  351. 0x3A},
  352. /* Index 0x64~0x67 */
  353. {0x2D, 0x3F, 0x3F}, {0x2D, 0x3A, 0x3F}, {0x2D, 0x36, 0x3F}, {0x2D,
  354. 0x31,
  355. 0x3F},
  356. /* Index 0x68~0x6B */
  357. {0x00, 0x00, 0x1C}, {0x07, 0x00, 0x1C}, {0x0E, 0x00, 0x1C}, {0x15,
  358. 0x00,
  359. 0x1C},
  360. /* Index 0x6C~0x6F */
  361. {0x1C, 0x00, 0x1C}, {0x1C, 0x00, 0x15}, {0x1C, 0x00, 0x0E}, {0x1C,
  362. 0x00,
  363. 0x07},
  364. /* Index 0x70~0x73 */
  365. {0x1C, 0x00, 0x00}, {0x1C, 0x07, 0x00}, {0x1C, 0x0E, 0x00}, {0x1C,
  366. 0x15,
  367. 0x00},
  368. /* Index 0x74~0x77 */
  369. {0x1C, 0x1C, 0x00}, {0x15, 0x1C, 0x00}, {0x0E, 0x1C, 0x00}, {0x07,
  370. 0x1C,
  371. 0x00},
  372. /* Index 0x78~0x7B */
  373. {0x00, 0x1C, 0x00}, {0x00, 0x1C, 0x07}, {0x00, 0x1C, 0x0E}, {0x00,
  374. 0x1C,
  375. 0x15},
  376. /* Index 0x7C~0x7F */
  377. {0x00, 0x1C, 0x1C}, {0x00, 0x15, 0x1C}, {0x00, 0x0E, 0x1C}, {0x00,
  378. 0x07,
  379. 0x1C},
  380. /* Index 0x80~0x83 */
  381. {0x0E, 0x0E, 0x1C}, {0x11, 0x0E, 0x1C}, {0x15, 0x0E, 0x1C}, {0x18,
  382. 0x0E,
  383. 0x1C},
  384. /* Index 0x84~0x87 */
  385. {0x1C, 0x0E, 0x1C}, {0x1C, 0x0E, 0x18}, {0x1C, 0x0E, 0x15}, {0x1C,
  386. 0x0E,
  387. 0x11},
  388. /* Index 0x88~0x8B */
  389. {0x1C, 0x0E, 0x0E}, {0x1C, 0x11, 0x0E}, {0x1C, 0x15, 0x0E}, {0x1C,
  390. 0x18,
  391. 0x0E},
  392. /* Index 0x8C~0x8F */
  393. {0x1C, 0x1C, 0x0E}, {0x18, 0x1C, 0x0E}, {0x15, 0x1C, 0x0E}, {0x11,
  394. 0x1C,
  395. 0x0E},
  396. /* Index 0x90~0x93 */
  397. {0x0E, 0x1C, 0x0E}, {0x0E, 0x1C, 0x11}, {0x0E, 0x1C, 0x15}, {0x0E,
  398. 0x1C,
  399. 0x18},
  400. /* Index 0x94~0x97 */
  401. {0x0E, 0x1C, 0x1C}, {0x0E, 0x18, 0x1C}, {0x0E, 0x15, 0x1C}, {0x0E,
  402. 0x11,
  403. 0x1C},
  404. /* Index 0x98~0x9B */
  405. {0x14, 0x14, 0x1C}, {0x16, 0x14, 0x1C}, {0x18, 0x14, 0x1C}, {0x1A,
  406. 0x14,
  407. 0x1C},
  408. /* Index 0x9C~0x9F */
  409. {0x1C, 0x14, 0x1C}, {0x1C, 0x14, 0x1A}, {0x1C, 0x14, 0x18}, {0x1C,
  410. 0x14,
  411. 0x16},
  412. /* Index 0xA0~0xA3 */
  413. {0x1C, 0x14, 0x14}, {0x1C, 0x16, 0x14}, {0x1C, 0x18, 0x14}, {0x1C,
  414. 0x1A,
  415. 0x14},
  416. /* Index 0xA4~0xA7 */
  417. {0x1C, 0x1C, 0x14}, {0x1A, 0x1C, 0x14}, {0x18, 0x1C, 0x14}, {0x16,
  418. 0x1C,
  419. 0x14},
  420. /* Index 0xA8~0xAB */
  421. {0x14, 0x1C, 0x14}, {0x14, 0x1C, 0x16}, {0x14, 0x1C, 0x18}, {0x14,
  422. 0x1C,
  423. 0x1A},
  424. /* Index 0xAC~0xAF */
  425. {0x14, 0x1C, 0x1C}, {0x14, 0x1A, 0x1C}, {0x14, 0x18, 0x1C}, {0x14,
  426. 0x16,
  427. 0x1C},
  428. /* Index 0xB0~0xB3 */
  429. {0x00, 0x00, 0x10}, {0x04, 0x00, 0x10}, {0x08, 0x00, 0x10}, {0x0C,
  430. 0x00,
  431. 0x10},
  432. /* Index 0xB4~0xB7 */
  433. {0x10, 0x00, 0x10}, {0x10, 0x00, 0x0C}, {0x10, 0x00, 0x08}, {0x10,
  434. 0x00,
  435. 0x04},
  436. /* Index 0xB8~0xBB */
  437. {0x10, 0x00, 0x00}, {0x10, 0x04, 0x00}, {0x10, 0x08, 0x00}, {0x10,
  438. 0x0C,
  439. 0x00},
  440. /* Index 0xBC~0xBF */
  441. {0x10, 0x10, 0x00}, {0x0C, 0x10, 0x00}, {0x08, 0x10, 0x00}, {0x04,
  442. 0x10,
  443. 0x00},
  444. /* Index 0xC0~0xC3 */
  445. {0x00, 0x10, 0x00}, {0x00, 0x10, 0x04}, {0x00, 0x10, 0x08}, {0x00,
  446. 0x10,
  447. 0x0C},
  448. /* Index 0xC4~0xC7 */
  449. {0x00, 0x10, 0x10}, {0x00, 0x0C, 0x10}, {0x00, 0x08, 0x10}, {0x00,
  450. 0x04,
  451. 0x10},
  452. /* Index 0xC8~0xCB */
  453. {0x08, 0x08, 0x10}, {0x0A, 0x08, 0x10}, {0x0C, 0x08, 0x10}, {0x0E,
  454. 0x08,
  455. 0x10},
  456. /* Index 0xCC~0xCF */
  457. {0x10, 0x08, 0x10}, {0x10, 0x08, 0x0E}, {0x10, 0x08, 0x0C}, {0x10,
  458. 0x08,
  459. 0x0A},
  460. /* Index 0xD0~0xD3 */
  461. {0x10, 0x08, 0x08}, {0x10, 0x0A, 0x08}, {0x10, 0x0C, 0x08}, {0x10,
  462. 0x0E,
  463. 0x08},
  464. /* Index 0xD4~0xD7 */
  465. {0x10, 0x10, 0x08}, {0x0E, 0x10, 0x08}, {0x0C, 0x10, 0x08}, {0x0A,
  466. 0x10,
  467. 0x08},
  468. /* Index 0xD8~0xDB */
  469. {0x08, 0x10, 0x08}, {0x08, 0x10, 0x0A}, {0x08, 0x10, 0x0C}, {0x08,
  470. 0x10,
  471. 0x0E},
  472. /* Index 0xDC~0xDF */
  473. {0x08, 0x10, 0x10}, {0x08, 0x0E, 0x10}, {0x08, 0x0C, 0x10}, {0x08,
  474. 0x0A,
  475. 0x10},
  476. /* Index 0xE0~0xE3 */
  477. {0x0B, 0x0B, 0x10}, {0x0C, 0x0B, 0x10}, {0x0D, 0x0B, 0x10}, {0x0F,
  478. 0x0B,
  479. 0x10},
  480. /* Index 0xE4~0xE7 */
  481. {0x10, 0x0B, 0x10}, {0x10, 0x0B, 0x0F}, {0x10, 0x0B, 0x0D}, {0x10,
  482. 0x0B,
  483. 0x0C},
  484. /* Index 0xE8~0xEB */
  485. {0x10, 0x0B, 0x0B}, {0x10, 0x0C, 0x0B}, {0x10, 0x0D, 0x0B}, {0x10,
  486. 0x0F,
  487. 0x0B},
  488. /* Index 0xEC~0xEF */
  489. {0x10, 0x10, 0x0B}, {0x0F, 0x10, 0x0B}, {0x0D, 0x10, 0x0B}, {0x0C,
  490. 0x10,
  491. 0x0B},
  492. /* Index 0xF0~0xF3 */
  493. {0x0B, 0x10, 0x0B}, {0x0B, 0x10, 0x0C}, {0x0B, 0x10, 0x0D}, {0x0B,
  494. 0x10,
  495. 0x0F},
  496. /* Index 0xF4~0xF7 */
  497. {0x0B, 0x10, 0x10}, {0x0B, 0x0F, 0x10}, {0x0B, 0x0D, 0x10}, {0x0B,
  498. 0x0C,
  499. 0x10},
  500. /* Index 0xF8~0xFB */
  501. {0x00, 0x00, 0x00}, {0x00, 0x00, 0x00}, {0x00, 0x00, 0x00}, {0x00,
  502. 0x00,
  503. 0x00},
  504. /* Index 0xFC~0xFF */
  505. {0x00, 0x00, 0x00}, {0x00, 0x00, 0x00}, {0x00, 0x00, 0x00}, {0x00,
  506. 0x00,
  507. 0x00}
  508. };
  509. static void set_crt_output_path(int set_iga);
  510. static void dvi_patch_skew_dvp0(void);
  511. static void dvi_patch_skew_dvp1(void);
  512. static void dvi_patch_skew_dvp_low(void);
  513. static void set_dvi_output_path(int set_iga, int output_interface);
  514. static void set_lcd_output_path(int set_iga, int output_interface);
  515. static void load_fix_bit_crtc_reg(void);
  516. static void init_gfx_chip_info(int chip_type);
  517. static void init_tmds_chip_info(void);
  518. static void init_lvds_chip_info(void);
  519. static void device_screen_off(void);
  520. static void device_screen_on(void);
  521. static void set_display_channel(void);
  522. static void device_off(void);
  523. static void device_on(void);
  524. static void enable_second_display_channel(void);
  525. static void disable_second_display_channel(void);
  526. void viafb_lock_crt(void)
  527. {
  528. viafb_write_reg_mask(CR11, VIACR, BIT7, BIT7);
  529. }
  530. void viafb_unlock_crt(void)
  531. {
  532. viafb_write_reg_mask(CR11, VIACR, 0, BIT7);
  533. viafb_write_reg_mask(CR47, VIACR, 0, BIT0);
  534. }
  535. void write_dac_reg(u8 index, u8 r, u8 g, u8 b)
  536. {
  537. outb(index, LUT_INDEX_WRITE);
  538. outb(r, LUT_DATA);
  539. outb(g, LUT_DATA);
  540. outb(b, LUT_DATA);
  541. }
  542. /*Set IGA path for each device*/
  543. void viafb_set_iga_path(void)
  544. {
  545. if (viafb_SAMM_ON == 1) {
  546. if (viafb_CRT_ON) {
  547. if (viafb_primary_dev == CRT_Device)
  548. viaparinfo->crt_setting_info->iga_path = IGA1;
  549. else
  550. viaparinfo->crt_setting_info->iga_path = IGA2;
  551. }
  552. if (viafb_DVI_ON) {
  553. if (viafb_primary_dev == DVI_Device)
  554. viaparinfo->tmds_setting_info->iga_path = IGA1;
  555. else
  556. viaparinfo->tmds_setting_info->iga_path = IGA2;
  557. }
  558. if (viafb_LCD_ON) {
  559. if (viafb_primary_dev == LCD_Device) {
  560. if (viafb_dual_fb &&
  561. (viaparinfo->chip_info->gfx_chip_name ==
  562. UNICHROME_CLE266)) {
  563. viaparinfo->
  564. lvds_setting_info->iga_path = IGA2;
  565. viaparinfo->
  566. crt_setting_info->iga_path = IGA1;
  567. viaparinfo->
  568. tmds_setting_info->iga_path = IGA1;
  569. } else
  570. viaparinfo->
  571. lvds_setting_info->iga_path = IGA1;
  572. } else {
  573. viaparinfo->lvds_setting_info->iga_path = IGA2;
  574. }
  575. }
  576. if (viafb_LCD2_ON) {
  577. if (LCD2_Device == viafb_primary_dev)
  578. viaparinfo->lvds_setting_info2->iga_path = IGA1;
  579. else
  580. viaparinfo->lvds_setting_info2->iga_path = IGA2;
  581. }
  582. } else {
  583. viafb_SAMM_ON = 0;
  584. if (viafb_CRT_ON && viafb_LCD_ON) {
  585. viaparinfo->crt_setting_info->iga_path = IGA1;
  586. viaparinfo->lvds_setting_info->iga_path = IGA2;
  587. } else if (viafb_CRT_ON && viafb_DVI_ON) {
  588. viaparinfo->crt_setting_info->iga_path = IGA1;
  589. viaparinfo->tmds_setting_info->iga_path = IGA2;
  590. } else if (viafb_LCD_ON && viafb_DVI_ON) {
  591. viaparinfo->tmds_setting_info->iga_path = IGA1;
  592. viaparinfo->lvds_setting_info->iga_path = IGA2;
  593. } else if (viafb_LCD_ON && viafb_LCD2_ON) {
  594. viaparinfo->lvds_setting_info->iga_path = IGA2;
  595. viaparinfo->lvds_setting_info2->iga_path = IGA2;
  596. } else if (viafb_CRT_ON) {
  597. viaparinfo->crt_setting_info->iga_path = IGA1;
  598. } else if (viafb_LCD_ON) {
  599. viaparinfo->lvds_setting_info->iga_path = IGA2;
  600. } else if (viafb_DVI_ON) {
  601. viaparinfo->tmds_setting_info->iga_path = IGA1;
  602. }
  603. }
  604. }
  605. void via_set_primary_address(u32 addr)
  606. {
  607. DEBUG_MSG(KERN_DEBUG "via_set_primary_address(0x%08X)\n", addr);
  608. via_write_reg(VIACR, 0x0D, addr & 0xFF);
  609. via_write_reg(VIACR, 0x0C, (addr >> 8) & 0xFF);
  610. via_write_reg(VIACR, 0x34, (addr >> 16) & 0xFF);
  611. via_write_reg_mask(VIACR, 0x48, (addr >> 24) & 0x1F, 0x1F);
  612. }
  613. void via_set_secondary_address(u32 addr)
  614. {
  615. DEBUG_MSG(KERN_DEBUG "via_set_secondary_address(0x%08X)\n", addr);
  616. /* secondary display supports only quadword aligned memory */
  617. via_write_reg_mask(VIACR, 0x62, (addr >> 2) & 0xFE, 0xFE);
  618. via_write_reg(VIACR, 0x63, (addr >> 10) & 0xFF);
  619. via_write_reg(VIACR, 0x64, (addr >> 18) & 0xFF);
  620. via_write_reg_mask(VIACR, 0xA3, (addr >> 26) & 0x07, 0x07);
  621. }
  622. void via_set_primary_pitch(u32 pitch)
  623. {
  624. DEBUG_MSG(KERN_DEBUG "via_set_primary_pitch(0x%08X)\n", pitch);
  625. /* spec does not say that first adapter skips 3 bits but old
  626. * code did it and seems to be reasonable in analogy to 2nd adapter
  627. */
  628. pitch = pitch >> 3;
  629. via_write_reg(VIACR, 0x13, pitch & 0xFF);
  630. via_write_reg_mask(VIACR, 0x35, (pitch >> (8 - 5)) & 0xE0, 0xE0);
  631. }
  632. void via_set_secondary_pitch(u32 pitch)
  633. {
  634. DEBUG_MSG(KERN_DEBUG "via_set_secondary_pitch(0x%08X)\n", pitch);
  635. pitch = pitch >> 3;
  636. via_write_reg(VIACR, 0x66, pitch & 0xFF);
  637. via_write_reg_mask(VIACR, 0x67, (pitch >> 8) & 0x03, 0x03);
  638. via_write_reg_mask(VIACR, 0x71, (pitch >> (10 - 7)) & 0x80, 0x80);
  639. }
  640. void via_set_primary_color_depth(u8 depth)
  641. {
  642. u8 value;
  643. DEBUG_MSG(KERN_DEBUG "via_set_primary_color_depth(%d)\n", depth);
  644. switch (depth) {
  645. case 8:
  646. value = 0x00;
  647. break;
  648. case 15:
  649. value = 0x04;
  650. break;
  651. case 16:
  652. value = 0x14;
  653. break;
  654. case 24:
  655. value = 0x0C;
  656. break;
  657. case 30:
  658. value = 0x08;
  659. break;
  660. default:
  661. printk(KERN_WARNING "via_set_primary_color_depth: "
  662. "Unsupported depth: %d\n", depth);
  663. return;
  664. }
  665. via_write_reg_mask(VIASR, 0x15, value, 0x1C);
  666. }
  667. void via_set_secondary_color_depth(u8 depth)
  668. {
  669. u8 value;
  670. DEBUG_MSG(KERN_DEBUG "via_set_secondary_color_depth(%d)\n", depth);
  671. switch (depth) {
  672. case 8:
  673. value = 0x00;
  674. break;
  675. case 16:
  676. value = 0x40;
  677. break;
  678. case 24:
  679. value = 0xC0;
  680. break;
  681. case 30:
  682. value = 0x80;
  683. break;
  684. default:
  685. printk(KERN_WARNING "via_set_secondary_color_depth: "
  686. "Unsupported depth: %d\n", depth);
  687. return;
  688. }
  689. via_write_reg_mask(VIACR, 0x67, value, 0xC0);
  690. }
  691. static void set_color_register(u8 index, u8 red, u8 green, u8 blue)
  692. {
  693. outb(0xFF, 0x3C6); /* bit mask of palette */
  694. outb(index, 0x3C8);
  695. outb(red, 0x3C9);
  696. outb(green, 0x3C9);
  697. outb(blue, 0x3C9);
  698. }
  699. void viafb_set_primary_color_register(u8 index, u8 red, u8 green, u8 blue)
  700. {
  701. viafb_write_reg_mask(0x1A, VIASR, 0x00, 0x01);
  702. set_color_register(index, red, green, blue);
  703. }
  704. void viafb_set_secondary_color_register(u8 index, u8 red, u8 green, u8 blue)
  705. {
  706. viafb_write_reg_mask(0x1A, VIASR, 0x01, 0x01);
  707. set_color_register(index, red, green, blue);
  708. }
  709. void viafb_set_output_path(int device, int set_iga, int output_interface)
  710. {
  711. switch (device) {
  712. case DEVICE_CRT:
  713. set_crt_output_path(set_iga);
  714. break;
  715. case DEVICE_DVI:
  716. set_dvi_output_path(set_iga, output_interface);
  717. break;
  718. case DEVICE_LCD:
  719. set_lcd_output_path(set_iga, output_interface);
  720. break;
  721. }
  722. }
  723. static void set_crt_output_path(int set_iga)
  724. {
  725. viafb_write_reg_mask(CR36, VIACR, 0x00, BIT4 + BIT5);
  726. switch (set_iga) {
  727. case IGA1:
  728. viafb_write_reg_mask(SR16, VIASR, 0x00, BIT6);
  729. break;
  730. case IGA2:
  731. viafb_write_reg_mask(CR6A, VIACR, 0xC0, BIT6 + BIT7);
  732. viafb_write_reg_mask(SR16, VIASR, 0x40, BIT6);
  733. break;
  734. }
  735. }
  736. static void dvi_patch_skew_dvp0(void)
  737. {
  738. /* Reset data driving first: */
  739. viafb_write_reg_mask(SR1B, VIASR, 0, BIT1);
  740. viafb_write_reg_mask(SR2A, VIASR, 0, BIT4);
  741. switch (viaparinfo->chip_info->gfx_chip_name) {
  742. case UNICHROME_P4M890:
  743. {
  744. if ((viaparinfo->tmds_setting_info->h_active == 1600) &&
  745. (viaparinfo->tmds_setting_info->v_active ==
  746. 1200))
  747. viafb_write_reg_mask(CR96, VIACR, 0x03,
  748. BIT0 + BIT1 + BIT2);
  749. else
  750. viafb_write_reg_mask(CR96, VIACR, 0x07,
  751. BIT0 + BIT1 + BIT2);
  752. break;
  753. }
  754. case UNICHROME_P4M900:
  755. {
  756. viafb_write_reg_mask(CR96, VIACR, 0x07,
  757. BIT0 + BIT1 + BIT2 + BIT3);
  758. viafb_write_reg_mask(SR1B, VIASR, 0x02, BIT1);
  759. viafb_write_reg_mask(SR2A, VIASR, 0x10, BIT4);
  760. break;
  761. }
  762. default:
  763. {
  764. break;
  765. }
  766. }
  767. }
  768. static void dvi_patch_skew_dvp1(void)
  769. {
  770. switch (viaparinfo->chip_info->gfx_chip_name) {
  771. case UNICHROME_CX700:
  772. {
  773. break;
  774. }
  775. default:
  776. {
  777. break;
  778. }
  779. }
  780. }
  781. static void dvi_patch_skew_dvp_low(void)
  782. {
  783. switch (viaparinfo->chip_info->gfx_chip_name) {
  784. case UNICHROME_K8M890:
  785. {
  786. viafb_write_reg_mask(CR99, VIACR, 0x03, BIT0 + BIT1);
  787. break;
  788. }
  789. case UNICHROME_P4M900:
  790. {
  791. viafb_write_reg_mask(CR99, VIACR, 0x08,
  792. BIT0 + BIT1 + BIT2 + BIT3);
  793. break;
  794. }
  795. case UNICHROME_P4M890:
  796. {
  797. viafb_write_reg_mask(CR99, VIACR, 0x0F,
  798. BIT0 + BIT1 + BIT2 + BIT3);
  799. break;
  800. }
  801. default:
  802. {
  803. break;
  804. }
  805. }
  806. }
  807. static void set_dvi_output_path(int set_iga, int output_interface)
  808. {
  809. switch (output_interface) {
  810. case INTERFACE_DVP0:
  811. viafb_write_reg_mask(CR6B, VIACR, 0x01, BIT0);
  812. if (set_iga == IGA1) {
  813. viafb_write_reg_mask(CR96, VIACR, 0x00, BIT4);
  814. viafb_write_reg_mask(CR6C, VIACR, 0x21, BIT0 +
  815. BIT5 + BIT7);
  816. } else {
  817. viafb_write_reg_mask(CR96, VIACR, 0x10, BIT4);
  818. viafb_write_reg_mask(CR6C, VIACR, 0xA1, BIT0 +
  819. BIT5 + BIT7);
  820. }
  821. viafb_write_reg_mask(SR1E, VIASR, 0xC0, BIT7 + BIT6);
  822. dvi_patch_skew_dvp0();
  823. break;
  824. case INTERFACE_DVP1:
  825. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CLE266) {
  826. if (set_iga == IGA1)
  827. viafb_write_reg_mask(CR93, VIACR, 0x21,
  828. BIT0 + BIT5 + BIT7);
  829. else
  830. viafb_write_reg_mask(CR93, VIACR, 0xA1,
  831. BIT0 + BIT5 + BIT7);
  832. } else {
  833. if (set_iga == IGA1)
  834. viafb_write_reg_mask(CR9B, VIACR, 0x00, BIT4);
  835. else
  836. viafb_write_reg_mask(CR9B, VIACR, 0x10, BIT4);
  837. }
  838. viafb_write_reg_mask(SR1E, VIASR, 0x30, BIT4 + BIT5);
  839. dvi_patch_skew_dvp1();
  840. break;
  841. case INTERFACE_DFP_HIGH:
  842. if (viaparinfo->chip_info->gfx_chip_name != UNICHROME_CLE266) {
  843. if (set_iga == IGA1) {
  844. viafb_write_reg_mask(CR96, VIACR, 0x00, BIT4);
  845. viafb_write_reg_mask(CR97, VIACR, 0x03,
  846. BIT0 + BIT1 + BIT4);
  847. } else {
  848. viafb_write_reg_mask(CR96, VIACR, 0x10, BIT4);
  849. viafb_write_reg_mask(CR97, VIACR, 0x13,
  850. BIT0 + BIT1 + BIT4);
  851. }
  852. }
  853. viafb_write_reg_mask(SR2A, VIASR, 0x0C, BIT2 + BIT3);
  854. break;
  855. case INTERFACE_DFP_LOW:
  856. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CLE266)
  857. break;
  858. if (set_iga == IGA1) {
  859. viafb_write_reg_mask(CR99, VIACR, 0x00, BIT4);
  860. viafb_write_reg_mask(CR9B, VIACR, 0x00, BIT4);
  861. } else {
  862. viafb_write_reg_mask(CR99, VIACR, 0x10, BIT4);
  863. viafb_write_reg_mask(CR9B, VIACR, 0x10, BIT4);
  864. }
  865. viafb_write_reg_mask(SR2A, VIASR, 0x03, BIT0 + BIT1);
  866. dvi_patch_skew_dvp_low();
  867. break;
  868. case INTERFACE_TMDS:
  869. if (set_iga == IGA1)
  870. viafb_write_reg_mask(CR99, VIACR, 0x00, BIT4);
  871. else
  872. viafb_write_reg_mask(CR99, VIACR, 0x10, BIT4);
  873. break;
  874. }
  875. if (set_iga == IGA2) {
  876. enable_second_display_channel();
  877. /* Disable LCD Scaling */
  878. viafb_write_reg_mask(CR79, VIACR, 0x00, BIT0);
  879. }
  880. }
  881. static void set_lcd_output_path(int set_iga, int output_interface)
  882. {
  883. DEBUG_MSG(KERN_INFO
  884. "set_lcd_output_path, iga:%d,out_interface:%d\n",
  885. set_iga, output_interface);
  886. switch (set_iga) {
  887. case IGA1:
  888. viafb_write_reg_mask(CR6B, VIACR, 0x00, BIT3);
  889. viafb_write_reg_mask(CR6A, VIACR, 0x08, BIT3);
  890. disable_second_display_channel();
  891. break;
  892. case IGA2:
  893. viafb_write_reg_mask(CR6B, VIACR, 0x00, BIT3);
  894. viafb_write_reg_mask(CR6A, VIACR, 0x08, BIT3);
  895. enable_second_display_channel();
  896. break;
  897. }
  898. switch (output_interface) {
  899. case INTERFACE_DVP0:
  900. if (set_iga == IGA1) {
  901. viafb_write_reg_mask(CR96, VIACR, 0x00, BIT4);
  902. } else {
  903. viafb_write_reg(CR91, VIACR, 0x00);
  904. viafb_write_reg_mask(CR96, VIACR, 0x10, BIT4);
  905. }
  906. break;
  907. case INTERFACE_DVP1:
  908. if (set_iga == IGA1)
  909. viafb_write_reg_mask(CR9B, VIACR, 0x00, BIT4);
  910. else {
  911. viafb_write_reg(CR91, VIACR, 0x00);
  912. viafb_write_reg_mask(CR9B, VIACR, 0x10, BIT4);
  913. }
  914. break;
  915. case INTERFACE_DFP_HIGH:
  916. if (set_iga == IGA1)
  917. viafb_write_reg_mask(CR97, VIACR, 0x00, BIT4);
  918. else {
  919. viafb_write_reg(CR91, VIACR, 0x00);
  920. viafb_write_reg_mask(CR97, VIACR, 0x10, BIT4);
  921. viafb_write_reg_mask(CR96, VIACR, 0x10, BIT4);
  922. }
  923. break;
  924. case INTERFACE_DFP_LOW:
  925. if (set_iga == IGA1)
  926. viafb_write_reg_mask(CR99, VIACR, 0x00, BIT4);
  927. else {
  928. viafb_write_reg(CR91, VIACR, 0x00);
  929. viafb_write_reg_mask(CR99, VIACR, 0x10, BIT4);
  930. viafb_write_reg_mask(CR9B, VIACR, 0x10, BIT4);
  931. }
  932. break;
  933. case INTERFACE_DFP:
  934. if ((UNICHROME_K8M890 == viaparinfo->chip_info->gfx_chip_name)
  935. || (UNICHROME_P4M890 ==
  936. viaparinfo->chip_info->gfx_chip_name))
  937. viafb_write_reg_mask(CR97, VIACR, 0x84,
  938. BIT7 + BIT2 + BIT1 + BIT0);
  939. if (set_iga == IGA1) {
  940. viafb_write_reg_mask(CR97, VIACR, 0x00, BIT4);
  941. viafb_write_reg_mask(CR99, VIACR, 0x00, BIT4);
  942. } else {
  943. viafb_write_reg(CR91, VIACR, 0x00);
  944. viafb_write_reg_mask(CR97, VIACR, 0x10, BIT4);
  945. viafb_write_reg_mask(CR99, VIACR, 0x10, BIT4);
  946. }
  947. break;
  948. case INTERFACE_LVDS0:
  949. case INTERFACE_LVDS0LVDS1:
  950. if (set_iga == IGA1)
  951. viafb_write_reg_mask(CR99, VIACR, 0x00, BIT4);
  952. else
  953. viafb_write_reg_mask(CR99, VIACR, 0x10, BIT4);
  954. break;
  955. case INTERFACE_LVDS1:
  956. if (set_iga == IGA1)
  957. viafb_write_reg_mask(CR97, VIACR, 0x00, BIT4);
  958. else
  959. viafb_write_reg_mask(CR97, VIACR, 0x10, BIT4);
  960. break;
  961. }
  962. }
  963. static void load_fix_bit_crtc_reg(void)
  964. {
  965. /* always set to 1 */
  966. viafb_write_reg_mask(CR03, VIACR, 0x80, BIT7);
  967. /* line compare should set all bits = 1 (extend modes) */
  968. viafb_write_reg(CR18, VIACR, 0xff);
  969. /* line compare should set all bits = 1 (extend modes) */
  970. viafb_write_reg_mask(CR07, VIACR, 0x10, BIT4);
  971. /* line compare should set all bits = 1 (extend modes) */
  972. viafb_write_reg_mask(CR09, VIACR, 0x40, BIT6);
  973. /* line compare should set all bits = 1 (extend modes) */
  974. viafb_write_reg_mask(CR35, VIACR, 0x10, BIT4);
  975. /* line compare should set all bits = 1 (extend modes) */
  976. viafb_write_reg_mask(CR33, VIACR, 0x06, BIT0 + BIT1 + BIT2);
  977. /*viafb_write_reg_mask(CR32, VIACR, 0x01, BIT0); */
  978. /* extend mode always set to e3h */
  979. viafb_write_reg(CR17, VIACR, 0xe3);
  980. /* extend mode always set to 0h */
  981. viafb_write_reg(CR08, VIACR, 0x00);
  982. /* extend mode always set to 0h */
  983. viafb_write_reg(CR14, VIACR, 0x00);
  984. /* If K8M800, enable Prefetch Mode. */
  985. if ((viaparinfo->chip_info->gfx_chip_name == UNICHROME_K800)
  986. || (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K8M890))
  987. viafb_write_reg_mask(CR33, VIACR, 0x08, BIT3);
  988. if ((viaparinfo->chip_info->gfx_chip_name == UNICHROME_CLE266)
  989. && (viaparinfo->chip_info->gfx_chip_revision == CLE266_REVISION_AX))
  990. viafb_write_reg_mask(SR1A, VIASR, 0x02, BIT1);
  991. }
  992. void viafb_load_reg(int timing_value, int viafb_load_reg_num,
  993. struct io_register *reg,
  994. int io_type)
  995. {
  996. int reg_mask;
  997. int bit_num = 0;
  998. int data;
  999. int i, j;
  1000. int shift_next_reg;
  1001. int start_index, end_index, cr_index;
  1002. u16 get_bit;
  1003. for (i = 0; i < viafb_load_reg_num; i++) {
  1004. reg_mask = 0;
  1005. data = 0;
  1006. start_index = reg[i].start_bit;
  1007. end_index = reg[i].end_bit;
  1008. cr_index = reg[i].io_addr;
  1009. shift_next_reg = bit_num;
  1010. for (j = start_index; j <= end_index; j++) {
  1011. /*if (bit_num==8) timing_value = timing_value >>8; */
  1012. reg_mask = reg_mask | (BIT0 << j);
  1013. get_bit = (timing_value & (BIT0 << bit_num));
  1014. data =
  1015. data | ((get_bit >> shift_next_reg) << start_index);
  1016. bit_num++;
  1017. }
  1018. if (io_type == VIACR)
  1019. viafb_write_reg_mask(cr_index, VIACR, data, reg_mask);
  1020. else
  1021. viafb_write_reg_mask(cr_index, VIASR, data, reg_mask);
  1022. }
  1023. }
  1024. /* Write Registers */
  1025. void viafb_write_regx(struct io_reg RegTable[], int ItemNum)
  1026. {
  1027. int i;
  1028. unsigned char RegTemp;
  1029. /*DEBUG_MSG(KERN_INFO "Table Size : %x!!\n",ItemNum ); */
  1030. for (i = 0; i < ItemNum; i++) {
  1031. outb(RegTable[i].index, RegTable[i].port);
  1032. RegTemp = inb(RegTable[i].port + 1);
  1033. RegTemp = (RegTemp & (~RegTable[i].mask)) | RegTable[i].value;
  1034. outb(RegTemp, RegTable[i].port + 1);
  1035. }
  1036. }
  1037. void viafb_load_fetch_count_reg(int h_addr, int bpp_byte, int set_iga)
  1038. {
  1039. int reg_value;
  1040. int viafb_load_reg_num;
  1041. struct io_register *reg = NULL;
  1042. switch (set_iga) {
  1043. case IGA1:
  1044. reg_value = IGA1_FETCH_COUNT_FORMULA(h_addr, bpp_byte);
  1045. viafb_load_reg_num = fetch_count_reg.
  1046. iga1_fetch_count_reg.reg_num;
  1047. reg = fetch_count_reg.iga1_fetch_count_reg.reg;
  1048. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIASR);
  1049. break;
  1050. case IGA2:
  1051. reg_value = IGA2_FETCH_COUNT_FORMULA(h_addr, bpp_byte);
  1052. viafb_load_reg_num = fetch_count_reg.
  1053. iga2_fetch_count_reg.reg_num;
  1054. reg = fetch_count_reg.iga2_fetch_count_reg.reg;
  1055. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIACR);
  1056. break;
  1057. }
  1058. }
  1059. void viafb_load_FIFO_reg(int set_iga, int hor_active, int ver_active)
  1060. {
  1061. int reg_value;
  1062. int viafb_load_reg_num;
  1063. struct io_register *reg = NULL;
  1064. int iga1_fifo_max_depth = 0, iga1_fifo_threshold =
  1065. 0, iga1_fifo_high_threshold = 0, iga1_display_queue_expire_num = 0;
  1066. int iga2_fifo_max_depth = 0, iga2_fifo_threshold =
  1067. 0, iga2_fifo_high_threshold = 0, iga2_display_queue_expire_num = 0;
  1068. if (set_iga == IGA1) {
  1069. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K800) {
  1070. iga1_fifo_max_depth = K800_IGA1_FIFO_MAX_DEPTH;
  1071. iga1_fifo_threshold = K800_IGA1_FIFO_THRESHOLD;
  1072. iga1_fifo_high_threshold =
  1073. K800_IGA1_FIFO_HIGH_THRESHOLD;
  1074. /* If resolution > 1280x1024, expire length = 64, else
  1075. expire length = 128 */
  1076. if ((hor_active > 1280) && (ver_active > 1024))
  1077. iga1_display_queue_expire_num = 16;
  1078. else
  1079. iga1_display_queue_expire_num =
  1080. K800_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1081. }
  1082. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_PM800) {
  1083. iga1_fifo_max_depth = P880_IGA1_FIFO_MAX_DEPTH;
  1084. iga1_fifo_threshold = P880_IGA1_FIFO_THRESHOLD;
  1085. iga1_fifo_high_threshold =
  1086. P880_IGA1_FIFO_HIGH_THRESHOLD;
  1087. iga1_display_queue_expire_num =
  1088. P880_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1089. /* If resolution > 1280x1024, expire length = 64, else
  1090. expire length = 128 */
  1091. if ((hor_active > 1280) && (ver_active > 1024))
  1092. iga1_display_queue_expire_num = 16;
  1093. else
  1094. iga1_display_queue_expire_num =
  1095. P880_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1096. }
  1097. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CN700) {
  1098. iga1_fifo_max_depth = CN700_IGA1_FIFO_MAX_DEPTH;
  1099. iga1_fifo_threshold = CN700_IGA1_FIFO_THRESHOLD;
  1100. iga1_fifo_high_threshold =
  1101. CN700_IGA1_FIFO_HIGH_THRESHOLD;
  1102. /* If resolution > 1280x1024, expire length = 64,
  1103. else expire length = 128 */
  1104. if ((hor_active > 1280) && (ver_active > 1024))
  1105. iga1_display_queue_expire_num = 16;
  1106. else
  1107. iga1_display_queue_expire_num =
  1108. CN700_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1109. }
  1110. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CX700) {
  1111. iga1_fifo_max_depth = CX700_IGA1_FIFO_MAX_DEPTH;
  1112. iga1_fifo_threshold = CX700_IGA1_FIFO_THRESHOLD;
  1113. iga1_fifo_high_threshold =
  1114. CX700_IGA1_FIFO_HIGH_THRESHOLD;
  1115. iga1_display_queue_expire_num =
  1116. CX700_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1117. }
  1118. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K8M890) {
  1119. iga1_fifo_max_depth = K8M890_IGA1_FIFO_MAX_DEPTH;
  1120. iga1_fifo_threshold = K8M890_IGA1_FIFO_THRESHOLD;
  1121. iga1_fifo_high_threshold =
  1122. K8M890_IGA1_FIFO_HIGH_THRESHOLD;
  1123. iga1_display_queue_expire_num =
  1124. K8M890_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1125. }
  1126. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_P4M890) {
  1127. iga1_fifo_max_depth = P4M890_IGA1_FIFO_MAX_DEPTH;
  1128. iga1_fifo_threshold = P4M890_IGA1_FIFO_THRESHOLD;
  1129. iga1_fifo_high_threshold =
  1130. P4M890_IGA1_FIFO_HIGH_THRESHOLD;
  1131. iga1_display_queue_expire_num =
  1132. P4M890_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1133. }
  1134. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_P4M900) {
  1135. iga1_fifo_max_depth = P4M900_IGA1_FIFO_MAX_DEPTH;
  1136. iga1_fifo_threshold = P4M900_IGA1_FIFO_THRESHOLD;
  1137. iga1_fifo_high_threshold =
  1138. P4M900_IGA1_FIFO_HIGH_THRESHOLD;
  1139. iga1_display_queue_expire_num =
  1140. P4M900_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1141. }
  1142. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_VX800) {
  1143. iga1_fifo_max_depth = VX800_IGA1_FIFO_MAX_DEPTH;
  1144. iga1_fifo_threshold = VX800_IGA1_FIFO_THRESHOLD;
  1145. iga1_fifo_high_threshold =
  1146. VX800_IGA1_FIFO_HIGH_THRESHOLD;
  1147. iga1_display_queue_expire_num =
  1148. VX800_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1149. }
  1150. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_VX855) {
  1151. iga1_fifo_max_depth = VX855_IGA1_FIFO_MAX_DEPTH;
  1152. iga1_fifo_threshold = VX855_IGA1_FIFO_THRESHOLD;
  1153. iga1_fifo_high_threshold =
  1154. VX855_IGA1_FIFO_HIGH_THRESHOLD;
  1155. iga1_display_queue_expire_num =
  1156. VX855_IGA1_DISPLAY_QUEUE_EXPIRE_NUM;
  1157. }
  1158. /* Set Display FIFO Depath Select */
  1159. reg_value = IGA1_FIFO_DEPTH_SELECT_FORMULA(iga1_fifo_max_depth);
  1160. viafb_load_reg_num =
  1161. display_fifo_depth_reg.iga1_fifo_depth_select_reg.reg_num;
  1162. reg = display_fifo_depth_reg.iga1_fifo_depth_select_reg.reg;
  1163. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIASR);
  1164. /* Set Display FIFO Threshold Select */
  1165. reg_value = IGA1_FIFO_THRESHOLD_FORMULA(iga1_fifo_threshold);
  1166. viafb_load_reg_num =
  1167. fifo_threshold_select_reg.
  1168. iga1_fifo_threshold_select_reg.reg_num;
  1169. reg =
  1170. fifo_threshold_select_reg.
  1171. iga1_fifo_threshold_select_reg.reg;
  1172. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIASR);
  1173. /* Set FIFO High Threshold Select */
  1174. reg_value =
  1175. IGA1_FIFO_HIGH_THRESHOLD_FORMULA(iga1_fifo_high_threshold);
  1176. viafb_load_reg_num =
  1177. fifo_high_threshold_select_reg.
  1178. iga1_fifo_high_threshold_select_reg.reg_num;
  1179. reg =
  1180. fifo_high_threshold_select_reg.
  1181. iga1_fifo_high_threshold_select_reg.reg;
  1182. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIASR);
  1183. /* Set Display Queue Expire Num */
  1184. reg_value =
  1185. IGA1_DISPLAY_QUEUE_EXPIRE_NUM_FORMULA
  1186. (iga1_display_queue_expire_num);
  1187. viafb_load_reg_num =
  1188. display_queue_expire_num_reg.
  1189. iga1_display_queue_expire_num_reg.reg_num;
  1190. reg =
  1191. display_queue_expire_num_reg.
  1192. iga1_display_queue_expire_num_reg.reg;
  1193. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIASR);
  1194. } else {
  1195. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K800) {
  1196. iga2_fifo_max_depth = K800_IGA2_FIFO_MAX_DEPTH;
  1197. iga2_fifo_threshold = K800_IGA2_FIFO_THRESHOLD;
  1198. iga2_fifo_high_threshold =
  1199. K800_IGA2_FIFO_HIGH_THRESHOLD;
  1200. /* If resolution > 1280x1024, expire length = 64,
  1201. else expire length = 128 */
  1202. if ((hor_active > 1280) && (ver_active > 1024))
  1203. iga2_display_queue_expire_num = 16;
  1204. else
  1205. iga2_display_queue_expire_num =
  1206. K800_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1207. }
  1208. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_PM800) {
  1209. iga2_fifo_max_depth = P880_IGA2_FIFO_MAX_DEPTH;
  1210. iga2_fifo_threshold = P880_IGA2_FIFO_THRESHOLD;
  1211. iga2_fifo_high_threshold =
  1212. P880_IGA2_FIFO_HIGH_THRESHOLD;
  1213. /* If resolution > 1280x1024, expire length = 64,
  1214. else expire length = 128 */
  1215. if ((hor_active > 1280) && (ver_active > 1024))
  1216. iga2_display_queue_expire_num = 16;
  1217. else
  1218. iga2_display_queue_expire_num =
  1219. P880_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1220. }
  1221. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CN700) {
  1222. iga2_fifo_max_depth = CN700_IGA2_FIFO_MAX_DEPTH;
  1223. iga2_fifo_threshold = CN700_IGA2_FIFO_THRESHOLD;
  1224. iga2_fifo_high_threshold =
  1225. CN700_IGA2_FIFO_HIGH_THRESHOLD;
  1226. /* If resolution > 1280x1024, expire length = 64,
  1227. else expire length = 128 */
  1228. if ((hor_active > 1280) && (ver_active > 1024))
  1229. iga2_display_queue_expire_num = 16;
  1230. else
  1231. iga2_display_queue_expire_num =
  1232. CN700_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1233. }
  1234. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CX700) {
  1235. iga2_fifo_max_depth = CX700_IGA2_FIFO_MAX_DEPTH;
  1236. iga2_fifo_threshold = CX700_IGA2_FIFO_THRESHOLD;
  1237. iga2_fifo_high_threshold =
  1238. CX700_IGA2_FIFO_HIGH_THRESHOLD;
  1239. iga2_display_queue_expire_num =
  1240. CX700_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1241. }
  1242. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K8M890) {
  1243. iga2_fifo_max_depth = K8M890_IGA2_FIFO_MAX_DEPTH;
  1244. iga2_fifo_threshold = K8M890_IGA2_FIFO_THRESHOLD;
  1245. iga2_fifo_high_threshold =
  1246. K8M890_IGA2_FIFO_HIGH_THRESHOLD;
  1247. iga2_display_queue_expire_num =
  1248. K8M890_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1249. }
  1250. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_P4M890) {
  1251. iga2_fifo_max_depth = P4M890_IGA2_FIFO_MAX_DEPTH;
  1252. iga2_fifo_threshold = P4M890_IGA2_FIFO_THRESHOLD;
  1253. iga2_fifo_high_threshold =
  1254. P4M890_IGA2_FIFO_HIGH_THRESHOLD;
  1255. iga2_display_queue_expire_num =
  1256. P4M890_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1257. }
  1258. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_P4M900) {
  1259. iga2_fifo_max_depth = P4M900_IGA2_FIFO_MAX_DEPTH;
  1260. iga2_fifo_threshold = P4M900_IGA2_FIFO_THRESHOLD;
  1261. iga2_fifo_high_threshold =
  1262. P4M900_IGA2_FIFO_HIGH_THRESHOLD;
  1263. iga2_display_queue_expire_num =
  1264. P4M900_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1265. }
  1266. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_VX800) {
  1267. iga2_fifo_max_depth = VX800_IGA2_FIFO_MAX_DEPTH;
  1268. iga2_fifo_threshold = VX800_IGA2_FIFO_THRESHOLD;
  1269. iga2_fifo_high_threshold =
  1270. VX800_IGA2_FIFO_HIGH_THRESHOLD;
  1271. iga2_display_queue_expire_num =
  1272. VX800_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1273. }
  1274. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_VX855) {
  1275. iga2_fifo_max_depth = VX855_IGA2_FIFO_MAX_DEPTH;
  1276. iga2_fifo_threshold = VX855_IGA2_FIFO_THRESHOLD;
  1277. iga2_fifo_high_threshold =
  1278. VX855_IGA2_FIFO_HIGH_THRESHOLD;
  1279. iga2_display_queue_expire_num =
  1280. VX855_IGA2_DISPLAY_QUEUE_EXPIRE_NUM;
  1281. }
  1282. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_K800) {
  1283. /* Set Display FIFO Depath Select */
  1284. reg_value =
  1285. IGA2_FIFO_DEPTH_SELECT_FORMULA(iga2_fifo_max_depth)
  1286. - 1;
  1287. /* Patch LCD in IGA2 case */
  1288. viafb_load_reg_num =
  1289. display_fifo_depth_reg.
  1290. iga2_fifo_depth_select_reg.reg_num;
  1291. reg =
  1292. display_fifo_depth_reg.
  1293. iga2_fifo_depth_select_reg.reg;
  1294. viafb_load_reg(reg_value,
  1295. viafb_load_reg_num, reg, VIACR);
  1296. } else {
  1297. /* Set Display FIFO Depath Select */
  1298. reg_value =
  1299. IGA2_FIFO_DEPTH_SELECT_FORMULA(iga2_fifo_max_depth);
  1300. viafb_load_reg_num =
  1301. display_fifo_depth_reg.
  1302. iga2_fifo_depth_select_reg.reg_num;
  1303. reg =
  1304. display_fifo_depth_reg.
  1305. iga2_fifo_depth_select_reg.reg;
  1306. viafb_load_reg(reg_value,
  1307. viafb_load_reg_num, reg, VIACR);
  1308. }
  1309. /* Set Display FIFO Threshold Select */
  1310. reg_value = IGA2_FIFO_THRESHOLD_FORMULA(iga2_fifo_threshold);
  1311. viafb_load_reg_num =
  1312. fifo_threshold_select_reg.
  1313. iga2_fifo_threshold_select_reg.reg_num;
  1314. reg =
  1315. fifo_threshold_select_reg.
  1316. iga2_fifo_threshold_select_reg.reg;
  1317. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIACR);
  1318. /* Set FIFO High Threshold Select */
  1319. reg_value =
  1320. IGA2_FIFO_HIGH_THRESHOLD_FORMULA(iga2_fifo_high_threshold);
  1321. viafb_load_reg_num =
  1322. fifo_high_threshold_select_reg.
  1323. iga2_fifo_high_threshold_select_reg.reg_num;
  1324. reg =
  1325. fifo_high_threshold_select_reg.
  1326. iga2_fifo_high_threshold_select_reg.reg;
  1327. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIACR);
  1328. /* Set Display Queue Expire Num */
  1329. reg_value =
  1330. IGA2_DISPLAY_QUEUE_EXPIRE_NUM_FORMULA
  1331. (iga2_display_queue_expire_num);
  1332. viafb_load_reg_num =
  1333. display_queue_expire_num_reg.
  1334. iga2_display_queue_expire_num_reg.reg_num;
  1335. reg =
  1336. display_queue_expire_num_reg.
  1337. iga2_display_queue_expire_num_reg.reg;
  1338. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIACR);
  1339. }
  1340. }
  1341. u32 viafb_get_clk_value(int clk)
  1342. {
  1343. int i;
  1344. for (i = 0; i < NUM_TOTAL_PLL_TABLE; i++) {
  1345. if (clk == pll_value[i].clk) {
  1346. switch (viaparinfo->chip_info->gfx_chip_name) {
  1347. case UNICHROME_CLE266:
  1348. case UNICHROME_K400:
  1349. return pll_value[i].cle266_pll;
  1350. case UNICHROME_K800:
  1351. case UNICHROME_PM800:
  1352. case UNICHROME_CN700:
  1353. return pll_value[i].k800_pll;
  1354. case UNICHROME_CX700:
  1355. case UNICHROME_K8M890:
  1356. case UNICHROME_P4M890:
  1357. case UNICHROME_P4M900:
  1358. case UNICHROME_VX800:
  1359. return pll_value[i].cx700_pll;
  1360. case UNICHROME_VX855:
  1361. return pll_value[i].vx855_pll;
  1362. }
  1363. }
  1364. }
  1365. DEBUG_MSG(KERN_INFO "Can't find match PLL value\n\n");
  1366. return 0;
  1367. }
  1368. /* Set VCLK*/
  1369. void viafb_set_vclock(u32 CLK, int set_iga)
  1370. {
  1371. unsigned char RegTemp;
  1372. /* H.W. Reset : ON */
  1373. viafb_write_reg_mask(CR17, VIACR, 0x00, BIT7);
  1374. if (set_iga == IGA1) {
  1375. /* Change D,N FOR VCLK */
  1376. switch (viaparinfo->chip_info->gfx_chip_name) {
  1377. case UNICHROME_CLE266:
  1378. case UNICHROME_K400:
  1379. viafb_write_reg(SR46, VIASR, CLK / 0x100);
  1380. viafb_write_reg(SR47, VIASR, CLK % 0x100);
  1381. break;
  1382. case UNICHROME_K800:
  1383. case UNICHROME_PM800:
  1384. case UNICHROME_CN700:
  1385. case UNICHROME_CX700:
  1386. case UNICHROME_K8M890:
  1387. case UNICHROME_P4M890:
  1388. case UNICHROME_P4M900:
  1389. case UNICHROME_VX800:
  1390. case UNICHROME_VX855:
  1391. viafb_write_reg(SR44, VIASR, CLK / 0x10000);
  1392. DEBUG_MSG(KERN_INFO "\nSR44=%x", CLK / 0x10000);
  1393. viafb_write_reg(SR45, VIASR, (CLK & 0xFFFF) / 0x100);
  1394. DEBUG_MSG(KERN_INFO "\nSR45=%x",
  1395. (CLK & 0xFFFF) / 0x100);
  1396. viafb_write_reg(SR46, VIASR, CLK % 0x100);
  1397. DEBUG_MSG(KERN_INFO "\nSR46=%x", CLK % 0x100);
  1398. break;
  1399. }
  1400. }
  1401. if (set_iga == IGA2) {
  1402. /* Change D,N FOR LCK */
  1403. switch (viaparinfo->chip_info->gfx_chip_name) {
  1404. case UNICHROME_CLE266:
  1405. case UNICHROME_K400:
  1406. viafb_write_reg(SR44, VIASR, CLK / 0x100);
  1407. viafb_write_reg(SR45, VIASR, CLK % 0x100);
  1408. break;
  1409. case UNICHROME_K800:
  1410. case UNICHROME_PM800:
  1411. case UNICHROME_CN700:
  1412. case UNICHROME_CX700:
  1413. case UNICHROME_K8M890:
  1414. case UNICHROME_P4M890:
  1415. case UNICHROME_P4M900:
  1416. case UNICHROME_VX800:
  1417. case UNICHROME_VX855:
  1418. viafb_write_reg(SR4A, VIASR, CLK / 0x10000);
  1419. viafb_write_reg(SR4B, VIASR, (CLK & 0xFFFF) / 0x100);
  1420. viafb_write_reg(SR4C, VIASR, CLK % 0x100);
  1421. break;
  1422. }
  1423. }
  1424. /* H.W. Reset : OFF */
  1425. viafb_write_reg_mask(CR17, VIACR, 0x80, BIT7);
  1426. /* Reset PLL */
  1427. if (set_iga == IGA1) {
  1428. viafb_write_reg_mask(SR40, VIASR, 0x02, BIT1);
  1429. viafb_write_reg_mask(SR40, VIASR, 0x00, BIT1);
  1430. }
  1431. if (set_iga == IGA2) {
  1432. viafb_write_reg_mask(SR40, VIASR, 0x01, BIT0);
  1433. viafb_write_reg_mask(SR40, VIASR, 0x00, BIT0);
  1434. }
  1435. /* Fire! */
  1436. RegTemp = inb(VIARMisc);
  1437. outb(RegTemp | (BIT2 + BIT3), VIAWMisc);
  1438. }
  1439. void viafb_load_crtc_timing(struct display_timing device_timing,
  1440. int set_iga)
  1441. {
  1442. int i;
  1443. int viafb_load_reg_num = 0;
  1444. int reg_value = 0;
  1445. struct io_register *reg = NULL;
  1446. viafb_unlock_crt();
  1447. for (i = 0; i < 12; i++) {
  1448. if (set_iga == IGA1) {
  1449. switch (i) {
  1450. case H_TOTAL_INDEX:
  1451. reg_value =
  1452. IGA1_HOR_TOTAL_FORMULA(device_timing.
  1453. hor_total);
  1454. viafb_load_reg_num =
  1455. iga1_crtc_reg.hor_total.reg_num;
  1456. reg = iga1_crtc_reg.hor_total.reg;
  1457. break;
  1458. case H_ADDR_INDEX:
  1459. reg_value =
  1460. IGA1_HOR_ADDR_FORMULA(device_timing.
  1461. hor_addr);
  1462. viafb_load_reg_num =
  1463. iga1_crtc_reg.hor_addr.reg_num;
  1464. reg = iga1_crtc_reg.hor_addr.reg;
  1465. break;
  1466. case H_BLANK_START_INDEX:
  1467. reg_value =
  1468. IGA1_HOR_BLANK_START_FORMULA
  1469. (device_timing.hor_blank_start);
  1470. viafb_load_reg_num =
  1471. iga1_crtc_reg.hor_blank_start.reg_num;
  1472. reg = iga1_crtc_reg.hor_blank_start.reg;
  1473. break;
  1474. case H_BLANK_END_INDEX:
  1475. reg_value =
  1476. IGA1_HOR_BLANK_END_FORMULA
  1477. (device_timing.hor_blank_start,
  1478. device_timing.hor_blank_end);
  1479. viafb_load_reg_num =
  1480. iga1_crtc_reg.hor_blank_end.reg_num;
  1481. reg = iga1_crtc_reg.hor_blank_end.reg;
  1482. break;
  1483. case H_SYNC_START_INDEX:
  1484. reg_value =
  1485. IGA1_HOR_SYNC_START_FORMULA
  1486. (device_timing.hor_sync_start);
  1487. viafb_load_reg_num =
  1488. iga1_crtc_reg.hor_sync_start.reg_num;
  1489. reg = iga1_crtc_reg.hor_sync_start.reg;
  1490. break;
  1491. case H_SYNC_END_INDEX:
  1492. reg_value =
  1493. IGA1_HOR_SYNC_END_FORMULA
  1494. (device_timing.hor_sync_start,
  1495. device_timing.hor_sync_end);
  1496. viafb_load_reg_num =
  1497. iga1_crtc_reg.hor_sync_end.reg_num;
  1498. reg = iga1_crtc_reg.hor_sync_end.reg;
  1499. break;
  1500. case V_TOTAL_INDEX:
  1501. reg_value =
  1502. IGA1_VER_TOTAL_FORMULA(device_timing.
  1503. ver_total);
  1504. viafb_load_reg_num =
  1505. iga1_crtc_reg.ver_total.reg_num;
  1506. reg = iga1_crtc_reg.ver_total.reg;
  1507. break;
  1508. case V_ADDR_INDEX:
  1509. reg_value =
  1510. IGA1_VER_ADDR_FORMULA(device_timing.
  1511. ver_addr);
  1512. viafb_load_reg_num =
  1513. iga1_crtc_reg.ver_addr.reg_num;
  1514. reg = iga1_crtc_reg.ver_addr.reg;
  1515. break;
  1516. case V_BLANK_START_INDEX:
  1517. reg_value =
  1518. IGA1_VER_BLANK_START_FORMULA
  1519. (device_timing.ver_blank_start);
  1520. viafb_load_reg_num =
  1521. iga1_crtc_reg.ver_blank_start.reg_num;
  1522. reg = iga1_crtc_reg.ver_blank_start.reg;
  1523. break;
  1524. case V_BLANK_END_INDEX:
  1525. reg_value =
  1526. IGA1_VER_BLANK_END_FORMULA
  1527. (device_timing.ver_blank_start,
  1528. device_timing.ver_blank_end);
  1529. viafb_load_reg_num =
  1530. iga1_crtc_reg.ver_blank_end.reg_num;
  1531. reg = iga1_crtc_reg.ver_blank_end.reg;
  1532. break;
  1533. case V_SYNC_START_INDEX:
  1534. reg_value =
  1535. IGA1_VER_SYNC_START_FORMULA
  1536. (device_timing.ver_sync_start);
  1537. viafb_load_reg_num =
  1538. iga1_crtc_reg.ver_sync_start.reg_num;
  1539. reg = iga1_crtc_reg.ver_sync_start.reg;
  1540. break;
  1541. case V_SYNC_END_INDEX:
  1542. reg_value =
  1543. IGA1_VER_SYNC_END_FORMULA
  1544. (device_timing.ver_sync_start,
  1545. device_timing.ver_sync_end);
  1546. viafb_load_reg_num =
  1547. iga1_crtc_reg.ver_sync_end.reg_num;
  1548. reg = iga1_crtc_reg.ver_sync_end.reg;
  1549. break;
  1550. }
  1551. }
  1552. if (set_iga == IGA2) {
  1553. switch (i) {
  1554. case H_TOTAL_INDEX:
  1555. reg_value =
  1556. IGA2_HOR_TOTAL_FORMULA(device_timing.
  1557. hor_total);
  1558. viafb_load_reg_num =
  1559. iga2_crtc_reg.hor_total.reg_num;
  1560. reg = iga2_crtc_reg.hor_total.reg;
  1561. break;
  1562. case H_ADDR_INDEX:
  1563. reg_value =
  1564. IGA2_HOR_ADDR_FORMULA(device_timing.
  1565. hor_addr);
  1566. viafb_load_reg_num =
  1567. iga2_crtc_reg.hor_addr.reg_num;
  1568. reg = iga2_crtc_reg.hor_addr.reg;
  1569. break;
  1570. case H_BLANK_START_INDEX:
  1571. reg_value =
  1572. IGA2_HOR_BLANK_START_FORMULA
  1573. (device_timing.hor_blank_start);
  1574. viafb_load_reg_num =
  1575. iga2_crtc_reg.hor_blank_start.reg_num;
  1576. reg = iga2_crtc_reg.hor_blank_start.reg;
  1577. break;
  1578. case H_BLANK_END_INDEX:
  1579. reg_value =
  1580. IGA2_HOR_BLANK_END_FORMULA
  1581. (device_timing.hor_blank_start,
  1582. device_timing.hor_blank_end);
  1583. viafb_load_reg_num =
  1584. iga2_crtc_reg.hor_blank_end.reg_num;
  1585. reg = iga2_crtc_reg.hor_blank_end.reg;
  1586. break;
  1587. case H_SYNC_START_INDEX:
  1588. reg_value =
  1589. IGA2_HOR_SYNC_START_FORMULA
  1590. (device_timing.hor_sync_start);
  1591. if (UNICHROME_CN700 <=
  1592. viaparinfo->chip_info->gfx_chip_name)
  1593. viafb_load_reg_num =
  1594. iga2_crtc_reg.hor_sync_start.
  1595. reg_num;
  1596. else
  1597. viafb_load_reg_num = 3;
  1598. reg = iga2_crtc_reg.hor_sync_start.reg;
  1599. break;
  1600. case H_SYNC_END_INDEX:
  1601. reg_value =
  1602. IGA2_HOR_SYNC_END_FORMULA
  1603. (device_timing.hor_sync_start,
  1604. device_timing.hor_sync_end);
  1605. viafb_load_reg_num =
  1606. iga2_crtc_reg.hor_sync_end.reg_num;
  1607. reg = iga2_crtc_reg.hor_sync_end.reg;
  1608. break;
  1609. case V_TOTAL_INDEX:
  1610. reg_value =
  1611. IGA2_VER_TOTAL_FORMULA(device_timing.
  1612. ver_total);
  1613. viafb_load_reg_num =
  1614. iga2_crtc_reg.ver_total.reg_num;
  1615. reg = iga2_crtc_reg.ver_total.reg;
  1616. break;
  1617. case V_ADDR_INDEX:
  1618. reg_value =
  1619. IGA2_VER_ADDR_FORMULA(device_timing.
  1620. ver_addr);
  1621. viafb_load_reg_num =
  1622. iga2_crtc_reg.ver_addr.reg_num;
  1623. reg = iga2_crtc_reg.ver_addr.reg;
  1624. break;
  1625. case V_BLANK_START_INDEX:
  1626. reg_value =
  1627. IGA2_VER_BLANK_START_FORMULA
  1628. (device_timing.ver_blank_start);
  1629. viafb_load_reg_num =
  1630. iga2_crtc_reg.ver_blank_start.reg_num;
  1631. reg = iga2_crtc_reg.ver_blank_start.reg;
  1632. break;
  1633. case V_BLANK_END_INDEX:
  1634. reg_value =
  1635. IGA2_VER_BLANK_END_FORMULA
  1636. (device_timing.ver_blank_start,
  1637. device_timing.ver_blank_end);
  1638. viafb_load_reg_num =
  1639. iga2_crtc_reg.ver_blank_end.reg_num;
  1640. reg = iga2_crtc_reg.ver_blank_end.reg;
  1641. break;
  1642. case V_SYNC_START_INDEX:
  1643. reg_value =
  1644. IGA2_VER_SYNC_START_FORMULA
  1645. (device_timing.ver_sync_start);
  1646. viafb_load_reg_num =
  1647. iga2_crtc_reg.ver_sync_start.reg_num;
  1648. reg = iga2_crtc_reg.ver_sync_start.reg;
  1649. break;
  1650. case V_SYNC_END_INDEX:
  1651. reg_value =
  1652. IGA2_VER_SYNC_END_FORMULA
  1653. (device_timing.ver_sync_start,
  1654. device_timing.ver_sync_end);
  1655. viafb_load_reg_num =
  1656. iga2_crtc_reg.ver_sync_end.reg_num;
  1657. reg = iga2_crtc_reg.ver_sync_end.reg;
  1658. break;
  1659. }
  1660. }
  1661. viafb_load_reg(reg_value, viafb_load_reg_num, reg, VIACR);
  1662. }
  1663. viafb_lock_crt();
  1664. }
  1665. void viafb_fill_crtc_timing(struct crt_mode_table *crt_table,
  1666. struct VideoModeTable *video_mode, int bpp_byte, int set_iga)
  1667. {
  1668. struct display_timing crt_reg;
  1669. int i;
  1670. int index = 0;
  1671. int h_addr, v_addr;
  1672. u32 pll_D_N;
  1673. for (i = 0; i < video_mode->mode_array; i++) {
  1674. index = i;
  1675. if (crt_table[i].refresh_rate == viaparinfo->
  1676. crt_setting_info->refresh_rate)
  1677. break;
  1678. }
  1679. crt_reg = crt_table[index].crtc;
  1680. /* Mode 640x480 has border, but LCD/DFP didn't have border. */
  1681. /* So we would delete border. */
  1682. if ((viafb_LCD_ON | viafb_DVI_ON)
  1683. && video_mode->crtc[0].crtc.hor_addr == 640
  1684. && video_mode->crtc[0].crtc.ver_addr == 480
  1685. && viaparinfo->crt_setting_info->refresh_rate == 60) {
  1686. /* The border is 8 pixels. */
  1687. crt_reg.hor_blank_start = crt_reg.hor_blank_start - 8;
  1688. /* Blanking time should add left and right borders. */
  1689. crt_reg.hor_blank_end = crt_reg.hor_blank_end + 16;
  1690. }
  1691. h_addr = crt_reg.hor_addr;
  1692. v_addr = crt_reg.ver_addr;
  1693. /* update polarity for CRT timing */
  1694. if (crt_table[index].h_sync_polarity == NEGATIVE) {
  1695. if (crt_table[index].v_sync_polarity == NEGATIVE)
  1696. outb((inb(VIARMisc) & (~(BIT6 + BIT7))) |
  1697. (BIT6 + BIT7), VIAWMisc);
  1698. else
  1699. outb((inb(VIARMisc) & (~(BIT6 + BIT7))) | (BIT6),
  1700. VIAWMisc);
  1701. } else {
  1702. if (crt_table[index].v_sync_polarity == NEGATIVE)
  1703. outb((inb(VIARMisc) & (~(BIT6 + BIT7))) | (BIT7),
  1704. VIAWMisc);
  1705. else
  1706. outb((inb(VIARMisc) & (~(BIT6 + BIT7))), VIAWMisc);
  1707. }
  1708. if (set_iga == IGA1) {
  1709. viafb_unlock_crt();
  1710. viafb_write_reg(CR09, VIACR, 0x00); /*initial CR09=0 */
  1711. viafb_write_reg_mask(CR11, VIACR, 0x00, BIT4 + BIT5 + BIT6);
  1712. viafb_write_reg_mask(CR17, VIACR, 0x00, BIT7);
  1713. }
  1714. switch (set_iga) {
  1715. case IGA1:
  1716. viafb_load_crtc_timing(crt_reg, IGA1);
  1717. break;
  1718. case IGA2:
  1719. viafb_load_crtc_timing(crt_reg, IGA2);
  1720. break;
  1721. }
  1722. load_fix_bit_crtc_reg();
  1723. viafb_lock_crt();
  1724. viafb_write_reg_mask(CR17, VIACR, 0x80, BIT7);
  1725. viafb_load_fetch_count_reg(h_addr, bpp_byte, set_iga);
  1726. /* load FIFO */
  1727. if ((viaparinfo->chip_info->gfx_chip_name != UNICHROME_CLE266)
  1728. && (viaparinfo->chip_info->gfx_chip_name != UNICHROME_K400))
  1729. viafb_load_FIFO_reg(set_iga, h_addr, v_addr);
  1730. pll_D_N = viafb_get_clk_value(crt_table[index].clk);
  1731. DEBUG_MSG(KERN_INFO "PLL=%x", pll_D_N);
  1732. viafb_set_vclock(pll_D_N, set_iga);
  1733. }
  1734. void viafb_init_chip_info(int chip_type)
  1735. {
  1736. init_gfx_chip_info(chip_type);
  1737. init_tmds_chip_info();
  1738. init_lvds_chip_info();
  1739. viaparinfo->crt_setting_info->iga_path = IGA1;
  1740. viaparinfo->crt_setting_info->refresh_rate = viafb_refresh;
  1741. /*Set IGA path for each device */
  1742. viafb_set_iga_path();
  1743. viaparinfo->lvds_setting_info->display_method = viafb_lcd_dsp_method;
  1744. viaparinfo->lvds_setting_info->get_lcd_size_method =
  1745. GET_LCD_SIZE_BY_USER_SETTING;
  1746. viaparinfo->lvds_setting_info->lcd_mode = viafb_lcd_mode;
  1747. viaparinfo->lvds_setting_info2->display_method =
  1748. viaparinfo->lvds_setting_info->display_method;
  1749. viaparinfo->lvds_setting_info2->lcd_mode =
  1750. viaparinfo->lvds_setting_info->lcd_mode;
  1751. }
  1752. void viafb_update_device_setting(int hres, int vres,
  1753. int bpp, int vmode_refresh, int flag)
  1754. {
  1755. if (flag == 0) {
  1756. viaparinfo->crt_setting_info->h_active = hres;
  1757. viaparinfo->crt_setting_info->v_active = vres;
  1758. viaparinfo->crt_setting_info->bpp = bpp;
  1759. viaparinfo->crt_setting_info->refresh_rate =
  1760. vmode_refresh;
  1761. viaparinfo->tmds_setting_info->h_active = hres;
  1762. viaparinfo->tmds_setting_info->v_active = vres;
  1763. viaparinfo->lvds_setting_info->h_active = hres;
  1764. viaparinfo->lvds_setting_info->v_active = vres;
  1765. viaparinfo->lvds_setting_info->bpp = bpp;
  1766. viaparinfo->lvds_setting_info->refresh_rate =
  1767. vmode_refresh;
  1768. viaparinfo->lvds_setting_info2->h_active = hres;
  1769. viaparinfo->lvds_setting_info2->v_active = vres;
  1770. viaparinfo->lvds_setting_info2->bpp = bpp;
  1771. viaparinfo->lvds_setting_info2->refresh_rate =
  1772. vmode_refresh;
  1773. } else {
  1774. if (viaparinfo->tmds_setting_info->iga_path == IGA2) {
  1775. viaparinfo->tmds_setting_info->h_active = hres;
  1776. viaparinfo->tmds_setting_info->v_active = vres;
  1777. }
  1778. if (viaparinfo->lvds_setting_info->iga_path == IGA2) {
  1779. viaparinfo->lvds_setting_info->h_active = hres;
  1780. viaparinfo->lvds_setting_info->v_active = vres;
  1781. viaparinfo->lvds_setting_info->bpp = bpp;
  1782. viaparinfo->lvds_setting_info->refresh_rate =
  1783. vmode_refresh;
  1784. }
  1785. if (IGA2 == viaparinfo->lvds_setting_info2->iga_path) {
  1786. viaparinfo->lvds_setting_info2->h_active = hres;
  1787. viaparinfo->lvds_setting_info2->v_active = vres;
  1788. viaparinfo->lvds_setting_info2->bpp = bpp;
  1789. viaparinfo->lvds_setting_info2->refresh_rate =
  1790. vmode_refresh;
  1791. }
  1792. }
  1793. }
  1794. static void init_gfx_chip_info(int chip_type)
  1795. {
  1796. u8 tmp;
  1797. viaparinfo->chip_info->gfx_chip_name = chip_type;
  1798. /* Check revision of CLE266 Chip */
  1799. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CLE266) {
  1800. /* CR4F only define in CLE266.CX chip */
  1801. tmp = viafb_read_reg(VIACR, CR4F);
  1802. viafb_write_reg(CR4F, VIACR, 0x55);
  1803. if (viafb_read_reg(VIACR, CR4F) != 0x55)
  1804. viaparinfo->chip_info->gfx_chip_revision =
  1805. CLE266_REVISION_AX;
  1806. else
  1807. viaparinfo->chip_info->gfx_chip_revision =
  1808. CLE266_REVISION_CX;
  1809. /* restore orignal CR4F value */
  1810. viafb_write_reg(CR4F, VIACR, tmp);
  1811. }
  1812. if (viaparinfo->chip_info->gfx_chip_name == UNICHROME_CX700) {
  1813. tmp = viafb_read_reg(VIASR, SR43);
  1814. DEBUG_MSG(KERN_INFO "SR43:%X\n", tmp);
  1815. if (tmp & 0x02) {
  1816. viaparinfo->chip_info->gfx_chip_revision =
  1817. CX700_REVISION_700M2;
  1818. } else if (tmp & 0x40) {
  1819. viaparinfo->chip_info->gfx_chip_revision =
  1820. CX700_REVISION_700M;
  1821. } else {
  1822. viaparinfo->chip_info->gfx_chip_revision =
  1823. CX700_REVISION_700;
  1824. }
  1825. }
  1826. /* Determine which 2D engine we have */
  1827. switch (viaparinfo->chip_info->gfx_chip_name) {
  1828. case UNICHROME_VX800:
  1829. case UNICHROME_VX855:
  1830. viaparinfo->chip_info->twod_engine = VIA_2D_ENG_M1;
  1831. break;
  1832. case UNICHROME_K8M890:
  1833. case UNICHROME_P4M900:
  1834. viaparinfo->chip_info->twod_engine = VIA_2D_ENG_H5;
  1835. break;
  1836. default:
  1837. viaparinfo->chip_info->twod_engine = VIA_2D_ENG_H2;
  1838. break;
  1839. }
  1840. }
  1841. static void init_tmds_chip_info(void)
  1842. {
  1843. viafb_tmds_trasmitter_identify();
  1844. if (INTERFACE_NONE == viaparinfo->chip_info->tmds_chip_info.
  1845. output_interface) {
  1846. switch (viaparinfo->chip_info->gfx_chip_name) {
  1847. case UNICHROME_CX700:
  1848. {
  1849. /* we should check support by hardware layout.*/
  1850. if ((viafb_display_hardware_layout ==
  1851. HW_LAYOUT_DVI_ONLY)
  1852. || (viafb_display_hardware_layout ==
  1853. HW_LAYOUT_LCD_DVI)) {
  1854. viaparinfo->chip_info->tmds_chip_info.
  1855. output_interface = INTERFACE_TMDS;
  1856. } else {
  1857. viaparinfo->chip_info->tmds_chip_info.
  1858. output_interface =
  1859. INTERFACE_NONE;
  1860. }
  1861. break;
  1862. }
  1863. case UNICHROME_K8M890:
  1864. case UNICHROME_P4M900:
  1865. case UNICHROME_P4M890:
  1866. /* TMDS on PCIE, we set DFPLOW as default. */
  1867. viaparinfo->chip_info->tmds_chip_info.output_interface =
  1868. INTERFACE_DFP_LOW;
  1869. break;
  1870. default:
  1871. {
  1872. /* set DVP1 default for DVI */
  1873. viaparinfo->chip_info->tmds_chip_info
  1874. .output_interface = INTERFACE_DVP1;
  1875. }
  1876. }
  1877. }
  1878. DEBUG_MSG(KERN_INFO "TMDS Chip = %d\n",
  1879. viaparinfo->chip_info->tmds_chip_info.tmds_chip_name);
  1880. viafb_init_dvi_size(&viaparinfo->shared->chip_info.tmds_chip_info,
  1881. &viaparinfo->shared->tmds_setting_info);
  1882. }
  1883. static void init_lvds_chip_info(void)
  1884. {
  1885. if (viafb_lcd_panel_id > LCD_PANEL_ID_MAXIMUM)
  1886. viaparinfo->lvds_setting_info->get_lcd_size_method =
  1887. GET_LCD_SIZE_BY_VGA_BIOS;
  1888. else
  1889. viaparinfo->lvds_setting_info->get_lcd_size_method =
  1890. GET_LCD_SIZE_BY_USER_SETTING;
  1891. viafb_lvds_trasmitter_identify();
  1892. viafb_init_lcd_size();
  1893. viafb_init_lvds_output_interface(&viaparinfo->chip_info->lvds_chip_info,
  1894. viaparinfo->lvds_setting_info);
  1895. if (viaparinfo->chip_info->lvds_chip_info2.lvds_chip_name) {
  1896. viafb_init_lvds_output_interface(&viaparinfo->chip_info->
  1897. lvds_chip_info2, viaparinfo->lvds_setting_info2);
  1898. }
  1899. /*If CX700,two singel LCD, we need to reassign
  1900. LCD interface to different LVDS port */
  1901. if ((UNICHROME_CX700 == viaparinfo->chip_info->gfx_chip_name)
  1902. && (HW_LAYOUT_LCD1_LCD2 == viafb_display_hardware_layout)) {
  1903. if ((INTEGRATED_LVDS == viaparinfo->chip_info->lvds_chip_info.
  1904. lvds_chip_name) && (INTEGRATED_LVDS ==
  1905. viaparinfo->chip_info->
  1906. lvds_chip_info2.lvds_chip_name)) {
  1907. viaparinfo->chip_info->lvds_chip_info.output_interface =
  1908. INTERFACE_LVDS0;
  1909. viaparinfo->chip_info->lvds_chip_info2.
  1910. output_interface =
  1911. INTERFACE_LVDS1;
  1912. }
  1913. }
  1914. DEBUG_MSG(KERN_INFO "LVDS Chip = %d\n",
  1915. viaparinfo->chip_info->lvds_chip_info.lvds_chip_name);
  1916. DEBUG_MSG(KERN_INFO "LVDS1 output_interface = %d\n",
  1917. viaparinfo->chip_info->lvds_chip_info.output_interface);
  1918. DEBUG_MSG(KERN_INFO "LVDS2 output_interface = %d\n",
  1919. viaparinfo->chip_info->lvds_chip_info.output_interface);
  1920. }
  1921. void viafb_init_dac(int set_iga)
  1922. {
  1923. int i;
  1924. u8 tmp;
  1925. if (set_iga == IGA1) {
  1926. /* access Primary Display's LUT */
  1927. viafb_write_reg_mask(SR1A, VIASR, 0x00, BIT0);
  1928. /* turn off LCK */
  1929. viafb_write_reg_mask(SR1B, VIASR, 0x00, BIT7 + BIT6);
  1930. for (i = 0; i < 256; i++) {
  1931. write_dac_reg(i, palLUT_table[i].red,
  1932. palLUT_table[i].green,
  1933. palLUT_table[i].blue);
  1934. }
  1935. /* turn on LCK */
  1936. viafb_write_reg_mask(SR1B, VIASR, 0xC0, BIT7 + BIT6);
  1937. } else {
  1938. tmp = viafb_read_reg(VIACR, CR6A);
  1939. /* access Secondary Display's LUT */
  1940. viafb_write_reg_mask(CR6A, VIACR, 0x40, BIT6);
  1941. viafb_write_reg_mask(SR1A, VIASR, 0x01, BIT0);
  1942. for (i = 0; i < 256; i++) {
  1943. write_dac_reg(i, palLUT_table[i].red,
  1944. palLUT_table[i].green,
  1945. palLUT_table[i].blue);
  1946. }
  1947. /* set IGA1 DAC for default */
  1948. viafb_write_reg_mask(SR1A, VIASR, 0x00, BIT0);
  1949. viafb_write_reg(CR6A, VIACR, tmp);
  1950. }
  1951. }
  1952. static void device_screen_off(void)
  1953. {
  1954. /* turn off CRT screen (IGA1) */
  1955. viafb_write_reg_mask(SR01, VIASR, 0x20, BIT5);
  1956. }
  1957. static void device_screen_on(void)
  1958. {
  1959. /* turn on CRT screen (IGA1) */
  1960. viafb_write_reg_mask(SR01, VIASR, 0x00, BIT5);
  1961. }
  1962. static void set_display_channel(void)
  1963. {
  1964. /*If viafb_LCD2_ON, on cx700, internal lvds's information
  1965. is keeped on lvds_setting_info2 */
  1966. if (viafb_LCD2_ON &&
  1967. viaparinfo->lvds_setting_info2->device_lcd_dualedge) {
  1968. /* For dual channel LCD: */
  1969. /* Set to Dual LVDS channel. */
  1970. viafb_write_reg_mask(CRD2, VIACR, 0x20, BIT4 + BIT5);
  1971. } else if (viafb_LCD_ON && viafb_DVI_ON) {
  1972. /* For LCD+DFP: */
  1973. /* Set to LVDS1 + TMDS channel. */
  1974. viafb_write_reg_mask(CRD2, VIACR, 0x10, BIT4 + BIT5);
  1975. } else if (viafb_DVI_ON) {
  1976. /* Set to single TMDS channel. */
  1977. viafb_write_reg_mask(CRD2, VIACR, 0x30, BIT4 + BIT5);
  1978. } else if (viafb_LCD_ON) {
  1979. if (viaparinfo->lvds_setting_info->device_lcd_dualedge) {
  1980. /* For dual channel LCD: */
  1981. /* Set to Dual LVDS channel. */
  1982. viafb_write_reg_mask(CRD2, VIACR, 0x20, BIT4 + BIT5);
  1983. } else {
  1984. /* Set to LVDS0 + LVDS1 channel. */
  1985. viafb_write_reg_mask(CRD2, VIACR, 0x00, BIT4 + BIT5);
  1986. }
  1987. }
  1988. }
  1989. int viafb_setmode(struct VideoModeTable *vmode_tbl, int video_bpp,
  1990. struct VideoModeTable *vmode_tbl1, int video_bpp1)
  1991. {
  1992. int i, j;
  1993. int port;
  1994. u8 value, index, mask;
  1995. struct crt_mode_table *crt_timing;
  1996. struct crt_mode_table *crt_timing1 = NULL;
  1997. device_screen_off();
  1998. crt_timing = vmode_tbl->crtc;
  1999. if (viafb_SAMM_ON == 1) {
  2000. crt_timing1 = vmode_tbl1->crtc;
  2001. }
  2002. inb(VIAStatus);
  2003. outb(0x00, VIAAR);
  2004. /* Write Common Setting for Video Mode */
  2005. switch (viaparinfo->chip_info->gfx_chip_name) {
  2006. case UNICHROME_CLE266:
  2007. viafb_write_regx(CLE266_ModeXregs, NUM_TOTAL_CLE266_ModeXregs);
  2008. break;
  2009. case UNICHROME_K400:
  2010. viafb_write_regx(KM400_ModeXregs, NUM_TOTAL_KM400_ModeXregs);
  2011. break;
  2012. case UNICHROME_K800:
  2013. case UNICHROME_PM800:
  2014. viafb_write_regx(CN400_ModeXregs, NUM_TOTAL_CN400_ModeXregs);
  2015. break;
  2016. case UNICHROME_CN700:
  2017. case UNICHROME_K8M890:
  2018. case UNICHROME_P4M890:
  2019. case UNICHROME_P4M900:
  2020. viafb_write_regx(CN700_ModeXregs, NUM_TOTAL_CN700_ModeXregs);
  2021. break;
  2022. case UNICHROME_CX700:
  2023. case UNICHROME_VX800:
  2024. viafb_write_regx(CX700_ModeXregs, NUM_TOTAL_CX700_ModeXregs);
  2025. break;
  2026. case UNICHROME_VX855:
  2027. viafb_write_regx(VX855_ModeXregs, NUM_TOTAL_VX855_ModeXregs);
  2028. break;
  2029. }
  2030. device_off();
  2031. /* Fill VPIT Parameters */
  2032. /* Write Misc Register */
  2033. outb(VPIT.Misc, VIAWMisc);
  2034. /* Write Sequencer */
  2035. for (i = 1; i <= StdSR; i++) {
  2036. outb(i, VIASR);
  2037. outb(VPIT.SR[i - 1], VIASR + 1);
  2038. }
  2039. viafb_write_reg_mask(0x15, VIASR, 0xA2, 0xA2);
  2040. viafb_set_iga_path();
  2041. /* Write CRTC */
  2042. viafb_fill_crtc_timing(crt_timing, vmode_tbl, video_bpp / 8, IGA1);
  2043. /* Write Graphic Controller */
  2044. for (i = 0; i < StdGR; i++) {
  2045. outb(i, VIAGR);
  2046. outb(VPIT.GR[i], VIAGR + 1);
  2047. }
  2048. /* Write Attribute Controller */
  2049. for (i = 0; i < StdAR; i++) {
  2050. inb(VIAStatus);
  2051. outb(i, VIAAR);
  2052. outb(VPIT.AR[i], VIAAR);
  2053. }
  2054. inb(VIAStatus);
  2055. outb(0x20, VIAAR);
  2056. /* Update Patch Register */
  2057. if ((viaparinfo->chip_info->gfx_chip_name == UNICHROME_CLE266
  2058. || viaparinfo->chip_info->gfx_chip_name == UNICHROME_K400)
  2059. && vmode_tbl->crtc[0].crtc.hor_addr == 1024
  2060. && vmode_tbl->crtc[0].crtc.ver_addr == 768) {
  2061. for (j = 0; j < res_patch_table[0].table_length; j++) {
  2062. index = res_patch_table[0].io_reg_table[j].index;
  2063. port = res_patch_table[0].io_reg_table[j].port;
  2064. value = res_patch_table[0].io_reg_table[j].value;
  2065. mask = res_patch_table[0].io_reg_table[j].mask;
  2066. viafb_write_reg_mask(index, port, value, mask);
  2067. }
  2068. }
  2069. via_set_primary_pitch(viafbinfo->fix.line_length);
  2070. via_set_secondary_pitch(viafb_dual_fb ? viafbinfo1->fix.line_length
  2071. : viafbinfo->fix.line_length);
  2072. via_set_primary_color_depth(viaparinfo->depth);
  2073. via_set_secondary_color_depth(viafb_dual_fb ? viaparinfo1->depth
  2074. : viaparinfo->depth);
  2075. /* Update Refresh Rate Setting */
  2076. /* Clear On Screen */
  2077. /* CRT set mode */
  2078. if (viafb_CRT_ON) {
  2079. if (viafb_SAMM_ON && (viaparinfo->crt_setting_info->iga_path ==
  2080. IGA2)) {
  2081. viafb_fill_crtc_timing(crt_timing1, vmode_tbl1,
  2082. video_bpp1 / 8,
  2083. viaparinfo->crt_setting_info->iga_path);
  2084. } else {
  2085. viafb_fill_crtc_timing(crt_timing, vmode_tbl,
  2086. video_bpp / 8,
  2087. viaparinfo->crt_setting_info->iga_path);
  2088. }
  2089. set_crt_output_path(viaparinfo->crt_setting_info->iga_path);
  2090. /* Patch if set_hres is not 8 alignment (1366) to viafb_setmode
  2091. to 8 alignment (1368),there is several pixels (2 pixels)
  2092. on right side of screen. */
  2093. if (vmode_tbl->crtc[0].crtc.hor_addr % 8) {
  2094. viafb_unlock_crt();
  2095. viafb_write_reg(CR02, VIACR,
  2096. viafb_read_reg(VIACR, CR02) - 1);
  2097. viafb_lock_crt();
  2098. }
  2099. }
  2100. if (viafb_DVI_ON) {
  2101. if (viafb_SAMM_ON &&
  2102. (viaparinfo->tmds_setting_info->iga_path == IGA2)) {
  2103. viafb_dvi_set_mode(viafb_get_mode
  2104. (viaparinfo->tmds_setting_info->h_active,
  2105. viaparinfo->tmds_setting_info->
  2106. v_active),
  2107. video_bpp1, viaparinfo->
  2108. tmds_setting_info->iga_path);
  2109. } else {
  2110. viafb_dvi_set_mode(viafb_get_mode
  2111. (viaparinfo->tmds_setting_info->h_active,
  2112. viaparinfo->
  2113. tmds_setting_info->v_active),
  2114. video_bpp, viaparinfo->
  2115. tmds_setting_info->iga_path);
  2116. }
  2117. }
  2118. if (viafb_LCD_ON) {
  2119. if (viafb_SAMM_ON &&
  2120. (viaparinfo->lvds_setting_info->iga_path == IGA2)) {
  2121. viaparinfo->lvds_setting_info->bpp = video_bpp1;
  2122. viafb_lcd_set_mode(crt_timing1, viaparinfo->
  2123. lvds_setting_info,
  2124. &viaparinfo->chip_info->lvds_chip_info);
  2125. } else {
  2126. /* IGA1 doesn't have LCD scaling, so set it center. */
  2127. if (viaparinfo->lvds_setting_info->iga_path == IGA1) {
  2128. viaparinfo->lvds_setting_info->display_method =
  2129. LCD_CENTERING;
  2130. }
  2131. viaparinfo->lvds_setting_info->bpp = video_bpp;
  2132. viafb_lcd_set_mode(crt_timing, viaparinfo->
  2133. lvds_setting_info,
  2134. &viaparinfo->chip_info->lvds_chip_info);
  2135. }
  2136. }
  2137. if (viafb_LCD2_ON) {
  2138. if (viafb_SAMM_ON &&
  2139. (viaparinfo->lvds_setting_info2->iga_path == IGA2)) {
  2140. viaparinfo->lvds_setting_info2->bpp = video_bpp1;
  2141. viafb_lcd_set_mode(crt_timing1, viaparinfo->
  2142. lvds_setting_info2,
  2143. &viaparinfo->chip_info->lvds_chip_info2);
  2144. } else {
  2145. /* IGA1 doesn't have LCD scaling, so set it center. */
  2146. if (viaparinfo->lvds_setting_info2->iga_path == IGA1) {
  2147. viaparinfo->lvds_setting_info2->display_method =
  2148. LCD_CENTERING;
  2149. }
  2150. viaparinfo->lvds_setting_info2->bpp = video_bpp;
  2151. viafb_lcd_set_mode(crt_timing, viaparinfo->
  2152. lvds_setting_info2,
  2153. &viaparinfo->chip_info->lvds_chip_info2);
  2154. }
  2155. }
  2156. if ((viaparinfo->chip_info->gfx_chip_name == UNICHROME_CX700)
  2157. && (viafb_LCD_ON || viafb_DVI_ON))
  2158. set_display_channel();
  2159. /* If set mode normally, save resolution information for hot-plug . */
  2160. if (!viafb_hotplug) {
  2161. viafb_hotplug_Xres = vmode_tbl->crtc[0].crtc.hor_addr;
  2162. viafb_hotplug_Yres = vmode_tbl->crtc[0].crtc.ver_addr;
  2163. viafb_hotplug_bpp = video_bpp;
  2164. viafb_hotplug_refresh = viafb_refresh;
  2165. if (viafb_DVI_ON)
  2166. viafb_DeviceStatus = DVI_Device;
  2167. else
  2168. viafb_DeviceStatus = CRT_Device;
  2169. }
  2170. device_on();
  2171. if (viafb_SAMM_ON == 1)
  2172. viafb_write_reg_mask(CR6A, VIACR, 0xC0, BIT6 + BIT7);
  2173. device_screen_on();
  2174. return 1;
  2175. }
  2176. int viafb_get_pixclock(int hres, int vres, int vmode_refresh)
  2177. {
  2178. int i;
  2179. for (i = 0; i < NUM_TOTAL_RES_MAP_REFRESH; i++) {
  2180. if ((hres == res_map_refresh_tbl[i].hres)
  2181. && (vres == res_map_refresh_tbl[i].vres)
  2182. && (vmode_refresh == res_map_refresh_tbl[i].vmode_refresh))
  2183. return res_map_refresh_tbl[i].pixclock;
  2184. }
  2185. return RES_640X480_60HZ_PIXCLOCK;
  2186. }
  2187. int viafb_get_refresh(int hres, int vres, u32 long_refresh)
  2188. {
  2189. #define REFRESH_TOLERANCE 3
  2190. int i, nearest = -1, diff = REFRESH_TOLERANCE;
  2191. for (i = 0; i < NUM_TOTAL_RES_MAP_REFRESH; i++) {
  2192. if ((hres == res_map_refresh_tbl[i].hres)
  2193. && (vres == res_map_refresh_tbl[i].vres)
  2194. && (diff > (abs(long_refresh -
  2195. res_map_refresh_tbl[i].vmode_refresh)))) {
  2196. diff = abs(long_refresh - res_map_refresh_tbl[i].
  2197. vmode_refresh);
  2198. nearest = i;
  2199. }
  2200. }
  2201. #undef REFRESH_TOLERANCE
  2202. if (nearest > 0)
  2203. return res_map_refresh_tbl[nearest].vmode_refresh;
  2204. return 60;
  2205. }
  2206. static void device_off(void)
  2207. {
  2208. viafb_crt_disable();
  2209. viafb_dvi_disable();
  2210. viafb_lcd_disable();
  2211. }
  2212. static void device_on(void)
  2213. {
  2214. if (viafb_CRT_ON == 1)
  2215. viafb_crt_enable();
  2216. if (viafb_DVI_ON == 1)
  2217. viafb_dvi_enable();
  2218. if (viafb_LCD_ON == 1)
  2219. viafb_lcd_enable();
  2220. }
  2221. void viafb_crt_disable(void)
  2222. {
  2223. viafb_write_reg_mask(CR36, VIACR, BIT5 + BIT4, BIT5 + BIT4);
  2224. }
  2225. void viafb_crt_enable(void)
  2226. {
  2227. viafb_write_reg_mask(CR36, VIACR, 0x0, BIT5 + BIT4);
  2228. }
  2229. static void enable_second_display_channel(void)
  2230. {
  2231. /* to enable second display channel. */
  2232. viafb_write_reg_mask(CR6A, VIACR, 0x00, BIT6);
  2233. viafb_write_reg_mask(CR6A, VIACR, BIT7, BIT7);
  2234. viafb_write_reg_mask(CR6A, VIACR, BIT6, BIT6);
  2235. }
  2236. static void disable_second_display_channel(void)
  2237. {
  2238. /* to disable second display channel. */
  2239. viafb_write_reg_mask(CR6A, VIACR, 0x00, BIT6);
  2240. viafb_write_reg_mask(CR6A, VIACR, 0x00, BIT7);
  2241. viafb_write_reg_mask(CR6A, VIACR, BIT6, BIT6);
  2242. }
  2243. void viafb_set_dpa_gfx(int output_interface, struct GFX_DPA_SETTING\
  2244. *p_gfx_dpa_setting)
  2245. {
  2246. switch (output_interface) {
  2247. case INTERFACE_DVP0:
  2248. {
  2249. /* DVP0 Clock Polarity and Adjust: */
  2250. viafb_write_reg_mask(CR96, VIACR,
  2251. p_gfx_dpa_setting->DVP0, 0x0F);
  2252. /* DVP0 Clock and Data Pads Driving: */
  2253. viafb_write_reg_mask(SR1E, VIASR,
  2254. p_gfx_dpa_setting->DVP0ClockDri_S, BIT2);
  2255. viafb_write_reg_mask(SR2A, VIASR,
  2256. p_gfx_dpa_setting->DVP0ClockDri_S1,
  2257. BIT4);
  2258. viafb_write_reg_mask(SR1B, VIASR,
  2259. p_gfx_dpa_setting->DVP0DataDri_S, BIT1);
  2260. viafb_write_reg_mask(SR2A, VIASR,
  2261. p_gfx_dpa_setting->DVP0DataDri_S1, BIT5);
  2262. break;
  2263. }
  2264. case INTERFACE_DVP1:
  2265. {
  2266. /* DVP1 Clock Polarity and Adjust: */
  2267. viafb_write_reg_mask(CR9B, VIACR,
  2268. p_gfx_dpa_setting->DVP1, 0x0F);
  2269. /* DVP1 Clock and Data Pads Driving: */
  2270. viafb_write_reg_mask(SR65, VIASR,
  2271. p_gfx_dpa_setting->DVP1Driving, 0x0F);
  2272. break;
  2273. }
  2274. case INTERFACE_DFP_HIGH:
  2275. {
  2276. viafb_write_reg_mask(CR97, VIACR,
  2277. p_gfx_dpa_setting->DFPHigh, 0x0F);
  2278. break;
  2279. }
  2280. case INTERFACE_DFP_LOW:
  2281. {
  2282. viafb_write_reg_mask(CR99, VIACR,
  2283. p_gfx_dpa_setting->DFPLow, 0x0F);
  2284. break;
  2285. }
  2286. case INTERFACE_DFP:
  2287. {
  2288. viafb_write_reg_mask(CR97, VIACR,
  2289. p_gfx_dpa_setting->DFPHigh, 0x0F);
  2290. viafb_write_reg_mask(CR99, VIACR,
  2291. p_gfx_dpa_setting->DFPLow, 0x0F);
  2292. break;
  2293. }
  2294. }
  2295. }
  2296. /*According var's xres, yres fill var's other timing information*/
  2297. void viafb_fill_var_timing_info(struct fb_var_screeninfo *var, int refresh,
  2298. struct VideoModeTable *vmode_tbl)
  2299. {
  2300. struct crt_mode_table *crt_timing = NULL;
  2301. struct display_timing crt_reg;
  2302. int i = 0, index = 0;
  2303. crt_timing = vmode_tbl->crtc;
  2304. for (i = 0; i < vmode_tbl->mode_array; i++) {
  2305. index = i;
  2306. if (crt_timing[i].refresh_rate == refresh)
  2307. break;
  2308. }
  2309. crt_reg = crt_timing[index].crtc;
  2310. var->pixclock = viafb_get_pixclock(var->xres, var->yres, refresh);
  2311. var->left_margin =
  2312. crt_reg.hor_total - (crt_reg.hor_sync_start + crt_reg.hor_sync_end);
  2313. var->right_margin = crt_reg.hor_sync_start - crt_reg.hor_addr;
  2314. var->hsync_len = crt_reg.hor_sync_end;
  2315. var->upper_margin =
  2316. crt_reg.ver_total - (crt_reg.ver_sync_start + crt_reg.ver_sync_end);
  2317. var->lower_margin = crt_reg.ver_sync_start - crt_reg.ver_addr;
  2318. var->vsync_len = crt_reg.ver_sync_end;
  2319. }