ccci_lk_load_img_plat.c 39 KB

123456789101112131415161718192021222324252627282930313233343536373839404142434445464748495051525354555657585960616263646566676869707172737475767778798081828384858687888990919293949596979899100101102103104105106107108109110111112113114115116117118119120121122123124125126127128129130131132133134135136137138139140141142143144145146147148149150151152153154155156157158159160161162163164165166167168169170171172173174175176177178179180181182183184185186187188189190191192193194195196197198199200201202203204205206207208209210211212213214215216217218219220221222223224225226227228229230231232233234235236237238239240241242243244245246247248249250251252253254255256257258259260261262263264265266267268269270271272273274275276277278279280281282283284285286287288289290291292293294295296297298299300301302303304305306307308309310311312313314315316317318319320321322323324325326327328329330331332333334335336337338339340341342343344345346347348349350351352353354355356357358359360361362363364365366367368369370371372373374375376377378379380381382383384385386387388389390391392393394395396397398399400401402403404405406407408409410411412413414415416417418419420421422423424425426427428429430431432433434435436437438439440441442443444445446447448449450451452453454455456457458459460461462463464465466467468469470471472473474475476477478479480481482483484485486487488489490491492493494495496497498499500501502503504505506507508509510511512513514515516517518519520521522523524525526527528529530531532533534535536537538539540541542543544545546547548549550551552553554555556557558559560561562563564565566567568569570571572573574575576577578579580581582583584585586587588589590591592593594595596597598599600601602603604605606607608609610611612613614615616617618619620621622623624625626627628629630631632633634635636637638639640641642643644645646647648649650651652653654655656657658659660661662663664665666667668669670671672673674675676677678679680681682683684685686687688689690691692693694695696697698699700701702703704705706707708709710711712713714715716717718719720721722723724725726727728729730731732733734735736737738739740741742743744745746747748749750751752753754755756757758759760761762763764765766767768769770771772773774775776777778779780781782783784785786787788789790791792793794795796797798799800801802803804805806807808809810811812813814815816817818819820821822823824825826827828829830831832833834835836837838839840841842843844845846847848849850851852853854855856857858859860861862863864865866867868869870871872873874875876877878879880881882883884885886887888889890891892893894895896897898899900901902903904905906907908909910911912913914915916917918919920921922923924925926927928929930931932933934935936937938939940941942943
  1. /* Copyright Statement:
  2. *
  3. * This software/firmware and related documentation ("MediaTek Software") are
  4. * protected under relevant copyright laws. The information contained herein
  5. * is confidential and proprietary to MediaTek Inc. and/or its licensors.
  6. * Without the prior written permission of MediaTek inc. and/or its licensors,
  7. * any reproduction, modification, use or disclosure of MediaTek Software,
  8. * and information contained herein, in whole or in part, shall be strictly prohibited.
  9. */
  10. /* MediaTek Inc. (C) 2015. All rights reserved.
  11. *
  12. * BY OPENING THIS FILE, RECEIVER HEREBY UNEQUIVOCALLY ACKNOWLEDGES AND AGREES
  13. * THAT THE SOFTWARE/FIRMWARE AND ITS DOCUMENTATIONS ("MEDIATEK SOFTWARE")
  14. * RECEIVED FROM MEDIATEK AND/OR ITS REPRESENTATIVES ARE PROVIDED TO RECEIVER ON
  15. * AN "AS-IS" BASIS ONLY. MEDIATEK EXPRESSLY DISCLAIMS ANY AND ALL WARRANTIES,
  16. * EXPRESS OR IMPLIED, INCLUDING BUT NOT LIMITED TO THE IMPLIED WARRANTIES OF
  17. * MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE OR NONINFRINGEMENT.
  18. * NEITHER DOES MEDIATEK PROVIDE ANY WARRANTY WHATSOEVER WITH RESPECT TO THE
  19. * SOFTWARE OF ANY THIRD PARTY WHICH MAY BE USED BY, INCORPORATED IN, OR
  20. * SUPPLIED WITH THE MEDIATEK SOFTWARE, AND RECEIVER AGREES TO LOOK ONLY TO SUCH
  21. * THIRD PARTY FOR ANY WARRANTY CLAIM RELATING THERETO. RECEIVER EXPRESSLY ACKNOWLEDGES
  22. * THAT IT IS RECEIVER'S SOLE RESPONSIBILITY TO OBTAIN FROM ANY THIRD PARTY ALL PROPER LICENSES
  23. * CONTAINED IN MEDIATEK SOFTWARE. MEDIATEK SHALL ALSO NOT BE RESPONSIBLE FOR ANY MEDIATEK
  24. * SOFTWARE RELEASES MADE TO RECEIVER'S SPECIFICATION OR TO CONFORM TO A PARTICULAR
  25. * STANDARD OR OPEN FORUM. RECEIVER'S SOLE AND EXCLUSIVE REMEDY AND MEDIATEK'S ENTIRE AND
  26. * CUMULATIVE LIABILITY WITH RESPECT TO THE MEDIATEK SOFTWARE RELEASED HEREUNDER WILL BE,
  27. * AT MEDIATEK'S OPTION, TO REVISE OR REPLACE THE MEDIATEK SOFTWARE AT ISSUE,
  28. * OR REFUND ANY SOFTWARE LICENSE FEES OR SERVICE CHARGE PAID BY RECEIVER TO
  29. * MEDIATEK FOR SUCH MEDIATEK SOFTWARE AT ISSUE.
  30. */
  31. #include <sys/types.h>
  32. #include <stdint.h>
  33. #include <platform/partition.h>
  34. #include <platform/mt_typedefs.h>
  35. #include <platform/boot_mode.h>
  36. #include <platform/mt_reg_base.h>
  37. #include <platform/errno.h>
  38. #include <printf.h>
  39. #include <string.h>
  40. #include <malloc.h>
  41. #include <libfdt.h>
  42. #include <platform/mt_gpt.h>
  43. #include <platform/emi_mpu.h>
  44. #include <debug.h>
  45. #define MODULE_NAME "LK_LD_MD"
  46. #include "ccci_ld_md_core.h"
  47. #include "ccci_ld_md_errno.h"
  48. /***************************************************************************************************
  49. ** Feature Option setting part
  50. ***************************************************************************************************/
  51. #define ENABLE_EMI_PROTECTION
  52. /***************************************************************************************************
  53. ** HW remap section
  54. ***************************************************************************************************/
  55. extern unsigned int ddr_enable_4gb(void)__attribute__((weak));
  56. static int is_4gb_ddr_support_en(void)
  57. {
  58. int ret;
  59. if (ddr_enable_4gb) {
  60. ret = ddr_enable_4gb();
  61. ALWAYS_LOG("ddr_enable_4GB sta:%d\n", ret);
  62. return ret;
  63. } else {
  64. ALWAYS_LOG("ddr 4GB disable\n");
  65. return 0;
  66. }
  67. }
  68. /*-------- Register base part -------------------------------*/
  69. /* HW remap for MD1 */
  70. #define INFRA_AO_BASE (0x10001000)
  71. /* -- MD1 Bank 0 */
  72. #define MD1_BANK0_MAP0 (INFRA_AO_BASE + 0x300)
  73. #define MD1_BANK0_MAP1 (INFRA_AO_BASE + 0x304)
  74. #define MD1_BANK0_MAP2 (INFRA_AO_BASE + 0x308)
  75. #define MD1_BANK0_MAP3 (INFRA_AO_BASE + 0x30C)
  76. /* -- MD1 Bank 1 */
  77. #define MD1_BANK1_MAP0 (INFRA_AO_BASE + 0x310)
  78. #define MD1_BANK1_MAP1 (INFRA_AO_BASE + 0x314)
  79. #define MD1_BANK1_MAP2 (INFRA_AO_BASE + 0x318)
  80. #define MD1_BANK1_MAP3 (INFRA_AO_BASE + 0x31C)
  81. /* -- MD1 Bank 4 */
  82. #define MD1_BANK4_MAP0 (INFRA_AO_BASE + 0x320)
  83. #define MD1_BANK4_MAP1 (INFRA_AO_BASE + 0x324)
  84. #define MD1_BANK4_MAP2 (INFRA_AO_BASE + 0x328)
  85. #define MD1_BANK4_MAP3 (INFRA_AO_BASE + 0x32C)
  86. /* HW remap for MD3(C2K) */
  87. /* -- MD3 Bank 0 */
  88. #define MD2_BANK0_MAP0 (INFRA_AO_BASE + 0x330)
  89. #define MD2_BANK0_MAP1 (INFRA_AO_BASE + 0x334)
  90. #define MD2_BANK0_MAP2 (INFRA_AO_BASE + 0x338)
  91. #define MD2_BANK0_MAP3 (INFRA_AO_BASE + 0x33C)
  92. /* -- MD3 Bank 4 */
  93. #define MD2_BANK4_MAP0 (INFRA_AO_BASE + 0x350)
  94. #define MD2_BANK4_MAP1 (INFRA_AO_BASE + 0x354)
  95. #define MD2_BANK4_MAP2 (INFRA_AO_BASE + 0x358)
  96. #define MD2_BANK4_MAP3 (INFRA_AO_BASE + 0x35C)
  97. /* HW remap lock register */
  98. #define MD_HW_REMAP_LOCK (0x10001F80)
  99. #define MD1_LOCK (1<<16)
  100. #define MD3_LOCK (1<<17)
  101. static int md_mem_ro_rw_remapping(unsigned int md_id, unsigned long long addr)
  102. {
  103. unsigned long long md_img_start_addr;
  104. unsigned int hw_remapping_bank0_map0 = 0;
  105. unsigned int hw_remapping_bank0_map1 = 0;
  106. unsigned int hw_remapping_bank0_map2 = 0;
  107. unsigned int hw_remapping_bank0_map3 = 0;
  108. unsigned int write_val;
  109. switch (md_id) {
  110. case 0: // MD1
  111. hw_remapping_bank0_map0 = MD1_BANK0_MAP0;
  112. hw_remapping_bank0_map1 = MD1_BANK0_MAP1;
  113. hw_remapping_bank0_map2 = MD1_BANK0_MAP2;
  114. hw_remapping_bank0_map3 = MD1_BANK0_MAP3;
  115. break;
  116. case 2: // MD3
  117. hw_remapping_bank0_map0 = MD2_BANK0_MAP0;
  118. hw_remapping_bank0_map1 = MD2_BANK0_MAP1;
  119. hw_remapping_bank0_map2 = MD2_BANK0_MAP2;
  120. hw_remapping_bank0_map3 = MD2_BANK0_MAP3;
  121. break;
  122. default:
  123. ALWAYS_LOG("Invalid md id:%d\n", md_id);
  124. return -1;
  125. }
  126. if (is_4gb_ddr_support_en()) {
  127. md_img_start_addr = addr & 0xFFFFFFFF;
  128. ALWAYS_LOG("---> Map 0x00000000 to 0x%llx for MD%d(4G)\n", addr, md_id+1);
  129. } else {
  130. md_img_start_addr = addr - 0x40000000;
  131. ALWAYS_LOG("---> Map 0x00000000 to 0x%llx for MD%d\n", addr, md_id+1);
  132. }
  133. /* For MDx_BANK0_MAP0 */
  134. write_val = (((md_img_start_addr >> 24) | 0x1) & 0x1FF)
  135. + ((((md_img_start_addr + 0x02000000) >> 8) | (1 << 16)) & 0x1FF0000);
  136. DRV_WriteReg32(hw_remapping_bank0_map0, write_val);
  137. ALWAYS_LOG("BANK0_MAP0 value:0x%X\n", DRV_Reg32(hw_remapping_bank0_map0));
  138. /* For MDx_BANK0_MAP1 */
  139. write_val = ((((md_img_start_addr + 0x04000000) >> 24) | 0x1) & 0x1FF)
  140. + ((((md_img_start_addr + 0x06000000) >> 8) | (1 << 16)) & 0x1FF0000);
  141. DRV_WriteReg32(hw_remapping_bank0_map1, write_val);
  142. ALWAYS_LOG("BANK0_MAP1 value:0x%X\n", DRV_Reg32(hw_remapping_bank0_map1));
  143. /* For MDx_BANK0_MAP2 */
  144. write_val = ((((md_img_start_addr + 0x08000000) >> 24) | 0x1) & 0x1FF)
  145. + ((((md_img_start_addr + 0x0A000000) >> 8) | (1 << 16)) & 0x1FF0000);
  146. DRV_WriteReg32(hw_remapping_bank0_map2, write_val);
  147. ALWAYS_LOG("BANK0_MAP2 value:0x%X\n", DRV_Reg32(hw_remapping_bank0_map2));
  148. /* For MDx_BANK0_MAP3 */
  149. write_val = ((((md_img_start_addr + 0x0C000000) >> 24) | 0x1) & 0x1FF)
  150. + ((((md_img_start_addr + 0x0E000000) >> 8) | (1 << 16)) & 0x1FF0000);
  151. DRV_WriteReg32(hw_remapping_bank0_map3, write_val);
  152. ALWAYS_LOG("BANK0_MAP3 value:0x%X\n", DRV_Reg32(hw_remapping_bank0_map3));
  153. #ifdef DUMMY_AP_MODE
  154. /* For 256~512MB */
  155. if (md_id == MD_SYS1) {
  156. write_val = ((((md_img_start_addr + 0x10000000) >> 24) | 0x1) & 0x1FF)
  157. + ((((md_img_start_addr + 0x12000000) >> 8) | (1 << 16)) & 0x1FF0000);
  158. DRV_WriteReg32(MD1_BANK1_MAP0, write_val);
  159. ALWAYS_LOG("BANK1_MAP0 value:0x%X\n", DRV_Reg32(MD1_BANK1_MAP0));
  160. write_val = ((((md_img_start_addr + 0x14000000) >> 24) | 0x1) & 0x1FF)
  161. + ((((md_img_start_addr + 0x16000000) >> 8) | (1 << 16)) & 0x1FF0000);
  162. DRV_WriteReg32(MD1_BANK1_MAP1, write_val);
  163. ALWAYS_LOG("BANK1_MAP1 value:0x%X\n", DRV_Reg32(MD1_BANK1_MAP1));
  164. write_val = ((((md_img_start_addr + 0x18000000) >> 24) | 0x1) & 0x1FF)
  165. + ((((md_img_start_addr + 0x1A000000) >> 8) | (1 << 16)) & 0x1FF0000);
  166. DRV_WriteReg32(MD1_BANK1_MAP2, write_val);
  167. ALWAYS_LOG("BANK1_MAP2 value:0x%X\n", DRV_Reg32(MD1_BANK1_MAP2));
  168. write_val = ((((md_img_start_addr + 0x1C000000) >> 24) | 0x1) & 0x1FF)
  169. + ((((md_img_start_addr + 0x1E000000) >> 8) | (1 << 16)) & 0x1FF0000);
  170. DRV_WriteReg32(MD1_BANK1_MAP3, write_val);
  171. ALWAYS_LOG("BANK1_MAP3 value:0x%X\n", DRV_Reg32(MD1_BANK1_MAP3));
  172. }
  173. #endif
  174. return 0;
  175. }
  176. static int md_smem_rw_remapping(unsigned int md_id, unsigned long long addr)
  177. {
  178. unsigned long long md_smem_start_addr;
  179. unsigned int hw_remapping_bank4_map0 = 0;
  180. unsigned int hw_remapping_bank4_map1 = 0;
  181. unsigned int hw_remapping_bank4_map2 = 0;
  182. unsigned int hw_remapping_bank4_map3 = 0;
  183. unsigned int write_val;
  184. switch (md_id) {
  185. case 0: // MD1
  186. hw_remapping_bank4_map0 = MD1_BANK4_MAP0;
  187. hw_remapping_bank4_map1 = MD1_BANK4_MAP1;
  188. hw_remapping_bank4_map2 = MD1_BANK4_MAP2;
  189. hw_remapping_bank4_map3 = MD1_BANK4_MAP3;
  190. break;
  191. case 2: // MD3
  192. hw_remapping_bank4_map0 = MD2_BANK4_MAP0;
  193. hw_remapping_bank4_map1 = MD2_BANK4_MAP1;
  194. hw_remapping_bank4_map2 = MD2_BANK4_MAP2;
  195. hw_remapping_bank4_map3 = MD2_BANK4_MAP3;
  196. break;
  197. default:
  198. ALWAYS_LOG("Invalid md id:%d\n", md_id);
  199. return -1;
  200. }
  201. if (is_4gb_ddr_support_en()) {
  202. md_smem_start_addr = addr & 0xFFFFFFFF;
  203. ALWAYS_LOG("---> Map 0x40000000 to 0x%llx for MD%d(4G)\n", addr, md_id+1);
  204. } else {
  205. md_smem_start_addr = addr - 0x40000000;
  206. ALWAYS_LOG("---> Map 0x40000000 to 0x%llx for MD%d\n", addr, md_id+1);
  207. }
  208. /* For MDx_BANK4_MAPx */
  209. write_val = (((md_smem_start_addr >> 24) | 0x1) & 0x1FF)
  210. + ((((md_smem_start_addr + 0x02000000) >> 8) | (1 << 16)) & 0x1FF0000);
  211. DRV_WriteReg32(hw_remapping_bank4_map0, write_val);
  212. ALWAYS_LOG("BANK4_MAP0 value:0x%X\n", DRV_Reg32(hw_remapping_bank4_map0));
  213. write_val = ((((md_smem_start_addr + 0x04000000) >> 24) | 0x1) & 0x1FF)
  214. + ((((md_smem_start_addr + 0x06000000) >> 8) | (1 << 16)) & 0x1FF0000);
  215. DRV_WriteReg32(hw_remapping_bank4_map1, write_val);
  216. ALWAYS_LOG("BANK4_MAP1 value:0x%X\n", DRV_Reg32(hw_remapping_bank4_map1));
  217. write_val = ((((md_smem_start_addr + 0x08000000) >> 24) | 0x1) & 0x1FF)
  218. + ((((md_smem_start_addr + 0x0A000000) >> 8) | (1 << 16)) & 0x1FF0000);
  219. DRV_WriteReg32(hw_remapping_bank4_map2, write_val);
  220. ALWAYS_LOG("BANK4_MAP2 value:0x%X\n", DRV_Reg32(hw_remapping_bank4_map2));
  221. write_val = ((((md_smem_start_addr + 0x0C000000) >> 24) | 0x1) & 0x1FF)
  222. + ((((md_smem_start_addr + 0x0E000000) >> 8) | (1 << 16)) & 0x1FF0000);
  223. DRV_WriteReg32(hw_remapping_bank4_map3, write_val);
  224. ALWAYS_LOG("BANK4_MAP3 value:0x%X\n", DRV_Reg32(hw_remapping_bank4_map3));
  225. return 0;
  226. }
  227. static void md_emi_remapping_lock(unsigned int md_id)
  228. {
  229. unsigned int reg_val;
  230. unsigned int lock_bit;
  231. switch (md_id) {
  232. case 0: // MD1
  233. lock_bit = MD1_LOCK;
  234. break;
  235. case 2: // MD3
  236. lock_bit = MD3_LOCK;
  237. break;
  238. default:
  239. ALWAYS_LOG("Invalid md id:%d for lock\n", md_id);
  240. return;
  241. }
  242. reg_val = DRV_Reg32(MD_HW_REMAP_LOCK);
  243. ALWAYS_LOG("before hw remap lock: MD1[%d], MD3[%d]\n", !!(reg_val&MD1_LOCK), !!(reg_val&MD3_LOCK));
  244. DRV_WriteReg32(MD_HW_REMAP_LOCK, (reg_val|lock_bit));
  245. reg_val = DRV_Reg32(MD_HW_REMAP_LOCK);
  246. ALWAYS_LOG("before hw remap lock: MD1[%d], MD3[%d]\n", !!(reg_val&MD1_LOCK), !!(reg_val&MD3_LOCK));
  247. }
  248. /* =================================================== */
  249. /* MPU Region defination */
  250. /* =================================================== */
  251. /* Note: This structure should sync with Kernel!!!! */
  252. typedef struct _mpu_cfg {
  253. unsigned int start;
  254. unsigned int end;
  255. int region;
  256. unsigned int permission;
  257. int relate_region;
  258. } mpu_cfg_t;
  259. #define MPU_REGION_ID_SEC_OS 0
  260. #define MPU_REGION_ID_ATF 1
  261. #define MPU_REGION_ID_SVP_SMEM 2
  262. #define MPU_REGION_ID_TRUSTED_UI 3
  263. #define MPU_REGION_ID_MD1_SEC_SMEM 4
  264. #define MPU_REGION_ID_MD1_SMEM 5
  265. #define MPU_REGION_ID_MD3_SMEM 6
  266. #define MPU_REGION_ID_MD1MD3_SMEM 7
  267. #define MPU_REGION_ID_MD1_MCURW_HWRW 8
  268. #define MPU_REGION_ID_MD1_ROM 9 /* contain DSP in Jade */
  269. #define MPU_REGION_ID_MD1_MCURW_HWRO 10
  270. #define MPU_REGION_ID_MD1_MCURO_HWRW 11
  271. #define MPU_REGION_ID_WIFI_EMI_FW 12
  272. #define MPU_REGION_ID_WMT 13
  273. #define MPU_REGION_ID_MD1_RW 14
  274. #define MPU_REGION_ID_MD1_LOGGING 15
  275. #define MPU_REGION_ID_MD3_ROM 16
  276. #define MPU_REGION_ID_MD3_RW 17
  277. #define MPU_REGION_ID_PADDING1 18
  278. #define MPU_REGION_ID_PADDING2 19
  279. #define MPU_REGION_ID_MD_PROTECT 20
  280. #define MPU_REGION_ID_MD_DYNAMIC 21
  281. #define MPU_REGION_ID_GPS_EMI 22
  282. #define MPU_REGION_ID_AP 23
  283. #define MPU_REGION_ID_TOTAL_NUM (MPU_REGION_ID_AP + 1)
  284. #define MPU_MDOMAIN_ID_AP 0
  285. #define MPU_MDOMAIN_ID_MD 1
  286. #define MPU_MDOMAIN_ID_MD3 5
  287. #define MPU_MDOMAIN_ID_MDHW 7
  288. #define MPU_MDOMAIN_ID_TOTAL_NUM 8
  289. static const unsigned int mpu_att_default[MPU_REGION_ID_TOTAL_NUM][MPU_MDOMAIN_ID_TOTAL_NUM] = {
  290. /*===================================================================================================================*/
  291. /* No | | D0(AP) | D1(MD1) | D2(CONN) | D3(Res) | D4(MM) | D5(MD3 ) | D6(MFG) | D7(MDHW) |*/
  292. /*--------------+----------------------------------------------------------------------------------------------------*/
  293. /* 0*/{ SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in Preloader*/
  294. /* 1*/{ SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in Preloader*/
  295. /* 2*/{ SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in TEE*/
  296. /* 3*/{ SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_RW , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in TEE Trust UI*/
  297. /* 4*/{ SEC_RW , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , NO_PROTECTION, FORBIDDEN , FORBIDDEN}, /*Set in TEE MD1 SEC MEM*/
  298. /* 5*/{ NO_PROTECTION, NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in LK CCCI_MD1*/
  299. /* 6*/{ NO_PROTECTION, FORBIDDEN , FORBIDDEN , FORBIDDEN, FORBIDDEN , NO_PROTECTION, FORBIDDEN , FORBIDDEN}, /*Set in LK CCCI_MD3*/
  300. /* 7*/{ NO_PROTECTION, NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , NO_PROTECTION, FORBIDDEN , FORBIDDEN},/*Set in LK MD1_MD3*/
  301. /* 8*/{ SEC_R_NSEC_R , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN, NO_PROTECTION}, /*Set in LK MD1_MCURW_HWRW*/
  302. /* 9*/{ SEC_R_NSEC_R , SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_R_NSEC_R }, /*Set in LK MD1_ROM_DSP*/
  303. /*10*/{ SEC_R_NSEC_R , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_R_NSEC_R }, /*Set in LK MD1_MCURW_HWRO*/
  304. /*11*/{ SEC_R_NSEC_R , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN, NO_PROTECTION}, /*Set in LK MD1_MCURO_HWRW*/
  305. /*12*/{ FORBIDDEN , FORBIDDEN , NO_PROTECTION, FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in Kernel WIFI EMI FW*/
  306. /*13*/{ NO_PROTECTION, FORBIDDEN , NO_PROTECTION, FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in Kernel WMT*/
  307. /*14*/{ SEC_R_NSEC_R , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN, SEC_R_NSEC_R }, /*Set in LK MD1 R/W*/
  308. /*15*/{ SEC_R_NSEC_R , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN}, /*Set in LK MD1 logging*/
  309. /*16*/{ SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN , FORBIDDEN, FORBIDDEN , SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN}, /*Set in LK MD3 ROM*/
  310. /*17*/{ SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN , FORBIDDEN, FORBIDDEN , NO_PROTECTION, FORBIDDEN , FORBIDDEN}, /*Set in LK MD3 R/W*/
  311. /*18*/{ NO_PROTECTION, NO_PROTECTION , FORBIDDEN , FORBIDDEN, NO_PROTECTION, FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in LK MD Padding1*/
  312. /*19*/{ NO_PROTECTION, NO_PROTECTION , FORBIDDEN , FORBIDDEN, NO_PROTECTION, FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in LK MD Padding2*/
  313. /*20*/{ NO_PROTECTION, SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN, NO_PROTECTION, FORBIDDEN , NO_PROTECTION, FORBIDDEN}, /*Set in LK MD Protect*/
  314. /*21*/{ FORBIDDEN , NO_PROTECTION, FORBIDDEN , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN}, /*Set in LK MD dynamic*/
  315. /*22*/{ NO_PROTECTION, FORBIDDEN , NO_PROTECTION , FORBIDDEN, FORBIDDEN , FORBIDDEN , FORBIDDEN , FORBIDDEN},/*Set in Kernel GPS EMI*/
  316. /*23*/{ NO_PROTECTION, SEC_R_NSEC_R , FORBIDDEN , FORBIDDEN, NO_PROTECTION, FORBIDDEN , NO_PROTECTION, FORBIDDEN},/*Set in Kernel AP*/
  317. }; /*=================================================================================================================*/
  318. static void get_mpu_attr_str(int lock, int curr_attr, char buf[], int size)
  319. {
  320. char ch = lock?'L':'U';
  321. snprintf(buf, 24, "%d-%d-%d-%d-%d-%d-%d-%d(%c)",
  322. curr_attr&7, (curr_attr>>3)&7, (curr_attr>>6)&7, (curr_attr>>9)&7,
  323. (curr_attr>>12)&7, (curr_attr>>15)&7, (curr_attr>>18)&7, (curr_attr>>21)&7, ch);
  324. }
  325. static const unsigned char region_mapping_at_hdr_md1[] = {
  326. MPU_REGION_ID_MD1_ROM, MPU_REGION_ID_MD1_MCURW_HWRO, MPU_REGION_ID_MD1_MCURO_HWRW,
  327. MPU_REGION_ID_MD1_MCURW_HWRW, MPU_REGION_ID_MD1_RW
  328. };
  329. static const int free_mpu_region[] = {MPU_REGION_ID_PADDING1, MPU_REGION_ID_PADDING2, MPU_REGION_ID_MD_PROTECT, -1};
  330. static int curr_free_mpu_idx;
  331. static int get_free_mpu_region(void)
  332. {
  333. int ret;
  334. if (curr_free_mpu_idx < (int)(sizeof(free_mpu_region)/sizeof(int))) {
  335. ret = free_mpu_region[curr_free_mpu_idx];
  336. curr_free_mpu_idx++;
  337. } else
  338. ret = -LD_ERR_PLAT_MPU_REGION_EMPTY;
  339. return ret;
  340. }
  341. /*make sure protect region is the last valid region*/
  342. static int get_md_protect_mpu_region(void)
  343. {
  344. int last_index;
  345. last_index = (int)(sizeof(free_mpu_region)/sizeof(int)) -1;
  346. if (free_mpu_region[last_index] < 0) /*free region end by -1*/
  347. last_index--; /*make sure it is index of last valid region*/
  348. if (curr_free_mpu_idx > last_index)
  349. return -LD_ERR_PLAT_MPU_REGION_EMPTY;
  350. return free_mpu_region[last_index];
  351. }
  352. static unsigned int get_mpu_region_default_access_att(int region, int lock)
  353. {
  354. return SET_ACCESS_PERMISSON(lock, mpu_att_default[region][7], mpu_att_default[region][6],
  355. mpu_att_default[region][5], mpu_att_default[region][4],
  356. mpu_att_default[region][3], mpu_att_default[region][2],
  357. mpu_att_default[region][1], mpu_att_default[region][0]);
  358. }
  359. static unsigned int mpu_attr_calculate(int region_id, unsigned int request_attr)
  360. {
  361. /* |D0(AP)|D1(MD1)|D2(CONN)|D3(Res)|D4(MM)|D5(MD3)|D6(MFG)|D7(MDHW)*/
  362. unsigned int tmp_mpu_att[8], i;
  363. for (i = 0; i < 8; i++)
  364. tmp_mpu_att[i] = mpu_att_default[region_id][i];
  365. /* AP MD1 MDHW: AP */
  366. if ((request_attr & 0xF) <= FORBIDDEN)
  367. tmp_mpu_att[0] = (request_attr & 0xF);
  368. /* AP MD1 MDHW: MD1 */
  369. request_attr = (request_attr >> 4);
  370. if ((request_attr & 0xF) <= FORBIDDEN)
  371. tmp_mpu_att[1] = (request_attr & 0xF);
  372. /* AP MD1 MDHW: MDHW */
  373. request_attr = (request_attr >> 4);
  374. if ((request_attr & 0xF) <= FORBIDDEN)
  375. tmp_mpu_att[7] = (request_attr & 0xF);
  376. /* MPU_REGION_ID_MD1_MCURO_HWRW can't lock, other region lock OK */
  377. if (region_id != MPU_REGION_ID_MD1_MCURO_HWRW) {
  378. return SET_ACCESS_PERMISSON(1, tmp_mpu_att[7], tmp_mpu_att[6], tmp_mpu_att[5], tmp_mpu_att[4],
  379. tmp_mpu_att[3], tmp_mpu_att[2], tmp_mpu_att[1], tmp_mpu_att[0]);
  380. } else {
  381. return SET_ACCESS_PERMISSON(0, tmp_mpu_att[7], tmp_mpu_att[6], tmp_mpu_att[5], tmp_mpu_att[4],
  382. tmp_mpu_att[3], tmp_mpu_att[2], tmp_mpu_att[1], tmp_mpu_att[0]);
  383. }
  384. }
  385. static void ccci_mem_access_cfg(mpu_cfg_t *mpu_cfg_list, int clear)
  386. {
  387. #ifdef ENABLE_EMI_PROTECTION
  388. mpu_cfg_t *curr;
  389. unsigned int curr_attr;
  390. char buf[24];
  391. if (NULL == mpu_cfg_list)
  392. return;
  393. curr = mpu_cfg_list;
  394. curr_attr = SET_ACCESS_PERMISSON(0, NO_PROTECTION, NO_PROTECTION, NO_PROTECTION, NO_PROTECTION, NO_PROTECTION,
  395. NO_PROTECTION, NO_PROTECTION, NO_PROTECTION);
  396. while (curr->region != -1) {
  397. if (clear) {
  398. emi_mpu_set_region_protection( 0, /*START_ADDR*/
  399. 0, /*END_ADDR*/
  400. curr->region, /*region*/
  401. curr_attr);
  402. ALWAYS_LOG("Clr MPU:S:0x%x E:0x%x A:<%d>[0~7]%d-%d-%d-%d-%d-%d-%d-%d\n", 0, 0,
  403. curr->region, curr_attr&7, (curr_attr>>3)&7, (curr_attr>>6)&7,
  404. (curr_attr>>9)&7, (curr_attr>>12)&7, (curr_attr>>15)&7,
  405. (curr_attr>>18)&7, (curr_attr>>21)&7);
  406. } else {
  407. emi_mpu_set_region_protection( curr->start, /*START_ADDR*/
  408. curr->end, /*END_ADDR*/
  409. curr->region, /*region*/
  410. curr->permission);
  411. curr_attr = curr->permission;
  412. get_mpu_attr_str(0, curr_attr, buf, 24);
  413. ALWAYS_LOG("Set MPU:S:0x%x E:0x%x A:<%d>[0~7]%s\n", curr->start,
  414. curr->end, curr->region, buf);
  415. }
  416. curr++;
  417. }
  418. #endif
  419. }
  420. /*--------- Implement one by one -------------------------------------------------------------------------------*/
  421. int plat_get_padding_mpu_num(void)
  422. {
  423. return (int)(sizeof(free_mpu_region)/sizeof(unsigned int)) - 1;
  424. }
  425. /*---------------------------------------------------------------------------------------------------*/
  426. /* Global variable for share memory */
  427. /*---------------------------------------------------------------------------------------------------*/
  428. static unsigned int ap_md1_smem_size_at_lk_env;
  429. static unsigned int md1_md3_smem_size_at_lk_env;
  430. static unsigned int ap_md3_smem_size_at_lk_env;
  431. static unsigned int ap_md1_smem_size_at_img;
  432. static unsigned int md1_md3_smem_size_at_img;
  433. static unsigned int ap_md3_smem_size_at_img;
  434. #define AP_MD1_SMEM_SIZE 0x200000
  435. #define MD1_MD3_SMEM_SIZE 0x200000
  436. #define AP_MD3_SMEM_SIZE 0x200000
  437. #define MAX_SMEM_SIZE 0x8000000/*Change from 6M to 128M,0x600000*/
  438. typedef struct _smem_layout {
  439. unsigned long long base_addr;
  440. unsigned int ap_md1_smem_offset;
  441. unsigned int ap_md1_smem_size;
  442. unsigned int ap_md3_smem_offset;
  443. unsigned int ap_md3_smem_size;
  444. unsigned int md1_md3_smem_offset;
  445. unsigned int md1_md3_smem_size;
  446. unsigned int total_smem_size;
  447. } smem_layout_t;
  448. static smem_layout_t smem_info;
  449. /*---------------------------------------------------------------------------------------------------*/
  450. /* HW remap function implement */
  451. /*---------------------------------------------------------------------------------------------------*/
  452. int plat_apply_hw_remap_for_md_ro_rw(void* info)
  453. {
  454. modem_info_t *md_ld_info = (modem_info_t *)info;
  455. return md_mem_ro_rw_remapping((unsigned int)md_ld_info->md_id, (unsigned int)md_ld_info->base_addr);
  456. }
  457. int plat_apply_hw_remap_for_md_smem(void *addr, int size)
  458. {
  459. /* For share memory final size depends on MD number, just store start address and size
  460. ** actual setting will do later
  461. */
  462. smem_info.base_addr = (unsigned long long)((unsigned long)addr);
  463. return 0;
  464. }
  465. int get_ccci_md_view_smem_addr(unsigned long long *ap_addr, unsigned int *md_addr)
  466. {
  467. int ret = 0;
  468. if (ap_addr)
  469. *ap_addr = smem_info.base_addr + smem_info.ap_md1_smem_offset + 0x100000;
  470. else
  471. ret = -1;
  472. if (md_addr)
  473. *md_addr = 0x40000000 + smem_info.ap_md1_smem_offset + 0x100000;
  474. else
  475. ret = -2;
  476. if (ret >= 0)
  477. ALWAYS_LOG("[ccci]get_md_view_smem: ap_addr = 0x%llx, 0x%x\n", *ap_addr, *md_addr);
  478. else
  479. ALWAYS_LOG("[ccci]get_md_view_smem: param error, ret = %d\n", ret);
  480. return ret;
  481. }
  482. /*---------------------------------------------------------------------------------------------------*/
  483. /* check header info collection by plat_post_hdr_info */
  484. /*---------------------------------------------------------------------------------------------------*/
  485. void plat_post_hdr_info(void* hdr, int ver, int id)
  486. {
  487. if (id == MD_SYS1) {
  488. ap_md1_smem_size_at_img = ((struct md_check_header_v5*)hdr)->ap_md_smem_size;
  489. md1_md3_smem_size_at_img = ((struct md_check_header_v5*)hdr)->md_to_md_smem_size;
  490. } else if (id == MD_SYS3) {
  491. ap_md3_smem_size_at_img = ((struct md_check_header_v1*)hdr)->ap_md_smem_size;
  492. }
  493. }
  494. /*---------------------------------------------------------------------------------------------------*/
  495. /* MPU static global variable and mpu relate function implement */
  496. /*---------------------------------------------------------------------------------------------------*/
  497. #define MPU_REGION_TOTAL_NUM (16) /* = MD1+MD3 */
  498. static mpu_cfg_t mpu_tbl[MPU_REGION_TOTAL_NUM];
  499. static int s_g_curr_mpu_num;
  500. /*
  501. ** if set start=0x0, end=0x10000, the actural protected area will be 0x0-0x1FFFF,
  502. ** here we use 64KB align, MPU actually request 32KB align since MT6582, but this works...
  503. ** we assume emi_mpu_set_region_protection will round end address down to 64KB align.
  504. */
  505. static void dump_received_pure_mpu_setting(struct image_section_desc *mem_info, int item_num)
  506. {
  507. int i;
  508. for (i =0; i < item_num; i++)
  509. MPU_DBG_LOG("mpu sec dec %d: offset:%x, size:%x, mpu_attr:%x, ext_flag:%x, relate_idx:%x\n", i,
  510. mem_info[i].offset, mem_info[i].size, mem_info[i].mpu_attr,
  511. mem_info[i].ext_flag, mem_info[i].relate_idx);
  512. }
  513. static int find_bind_mpu_region(mpu_cfg_t *mpu_tbl_hdr, int item_num, unsigned int bind_key)
  514. {
  515. int i;
  516. for (i = 0; i < item_num; i++) {
  517. if (mpu_tbl_hdr[i].relate_region == (int)bind_key)
  518. return i;
  519. }
  520. return -1;
  521. }
  522. static int md1_mpu_setting_process(void *p_md_ld_info, void *p_mem_info, mpu_cfg_t *mpu_tbl_hdr)
  523. {
  524. modem_info_t *md_ld_info = (modem_info_t *)p_md_ld_info;
  525. struct image_section_desc *mem_info = (struct image_section_desc *)p_mem_info;
  526. int normal_region_num = 0;
  527. int total_region_num = 0;
  528. int curr_idx = 0;
  529. int i;
  530. /*int had_padding = 0;*/
  531. int all_range_region_idx = -1;
  532. int bind_idx;
  533. int free_region_id;
  534. /* Calculate mpu num and padding num */
  535. for (i = 0; i < MPU_REGION_TOTAL_NUM; i++) {
  536. if ((mem_info[i].offset == 0) && (mem_info[i].size == 0))
  537. break;
  538. /* if (mem_info[i].ext_flag & VALID_PADDING) */
  539. /* had_padding = 1; */
  540. if (mem_info[i].ext_flag & MD_ALL_RANGE)
  541. all_range_region_idx = i;
  542. }
  543. total_region_num = i;
  544. dump_received_pure_mpu_setting(mem_info, total_region_num);
  545. for (i = 0; i < total_region_num; i++) {
  546. if (mem_info[i].ext_flag & (MD_ALL_RANGE|NEED_REMOVE|NEED_MPU_MORE))
  547. continue;
  548. /* Process normal case first */
  549. if (curr_idx >= (int)(sizeof(region_mapping_at_hdr_md1)/sizeof(unsigned char))) {
  550. ALWAYS_LOG("[error]md%d: mpu region too more %d\n", md_ld_info->md_id+1,
  551. (int)(sizeof(region_mapping_at_hdr_md1)/sizeof(unsigned char)));
  552. return -LD_ERR_PLAT_MPU_REGION_TOO_MORE;
  553. }
  554. mpu_tbl_hdr[curr_idx].start = (unsigned int)md_ld_info->base_addr + mem_info[i].offset;
  555. mpu_tbl_hdr[curr_idx].end = mpu_tbl_hdr[curr_idx].start + mem_info[i].size;
  556. mpu_tbl_hdr[curr_idx].end = ((mpu_tbl_hdr[curr_idx].end + 0xFFFF)&(~0xFFFF)) - 1;/* 64K align */
  557. mpu_tbl_hdr[curr_idx].permission =
  558. mpu_attr_calculate(region_mapping_at_hdr_md1[curr_idx], mem_info[i].mpu_attr);
  559. mpu_tbl_hdr[curr_idx].region = (int)region_mapping_at_hdr_md1[curr_idx];
  560. mpu_tbl_hdr[curr_idx].relate_region = mem_info[i].relate_idx;
  561. curr_idx++;
  562. normal_region_num++;
  563. }
  564. if (normal_region_num != (int)(sizeof(region_mapping_at_hdr_md1)/sizeof(unsigned char))) {
  565. ALWAYS_LOG("[error]md%d: mpu region not sync %d:%d\n", md_ld_info->md_id+1, normal_region_num,
  566. (int)(sizeof(region_mapping_at_hdr_md1)/sizeof(unsigned char)));
  567. return -LD_ERR_PLAT_MPU_REGION_NUM_NOT_SYNC;
  568. }
  569. for (i = 0; i < total_region_num; i++) {
  570. if (mem_info[i].ext_flag & NEED_MPU_MORE) {
  571. bind_idx = find_bind_mpu_region(mpu_tbl_hdr, normal_region_num, mem_info[i].relate_idx);
  572. if (bind_idx >= 0) {
  573. mpu_tbl_hdr[curr_idx].start = (unsigned int)md_ld_info->base_addr + mem_info[i].offset;
  574. mpu_tbl_hdr[curr_idx].end = mpu_tbl_hdr[curr_idx].start + mem_info[i].size;
  575. /* 64K align */
  576. mpu_tbl_hdr[curr_idx].end = ((mpu_tbl_hdr[curr_idx].end + 0xFFFF)&(~0xFFFF)) - 1;
  577. mpu_tbl_hdr[curr_idx].permission = mpu_tbl_hdr[bind_idx].permission;
  578. /* setting relate region */
  579. free_region_id = get_free_mpu_region();
  580. if (free_region_id < 0) {
  581. ALWAYS_LOG("[error]abnormal free region id %d +\n", free_region_id);
  582. return -LD_ERR_PLAT_ABNORMAL_FREE_REGION;
  583. }
  584. mpu_tbl_hdr[curr_idx].region = free_region_id;
  585. mpu_tbl_hdr[curr_idx].relate_region = mpu_tbl_hdr[bind_idx].region;
  586. mpu_tbl_hdr[bind_idx].relate_region = free_region_id;
  587. curr_idx++;
  588. } else {
  589. ALWAYS_LOG("md%d: padding array abnormal\n", md_ld_info->md_id+1);
  590. return -LD_ERR_PLAT_ABNORMAL_PAD_ARRAY;
  591. }
  592. }
  593. }
  594. /* Apply MD all range mpu protect setting */
  595. /* if (had_padding) { */
  596. free_region_id = get_md_protect_mpu_region(); //get_free_mpu_region();
  597. if (free_region_id < 0) {
  598. ALWAYS_LOG("[error]no more free region\n");
  599. return -LD_ERR_PLAT_NO_MORE_FREE_REGION;
  600. }
  601. mpu_tbl_hdr[curr_idx].permission = get_mpu_region_default_access_att(free_region_id, 1);
  602. mpu_tbl_hdr[curr_idx].start = (unsigned int)md_ld_info->base_addr + mem_info[all_range_region_idx].offset;
  603. mpu_tbl_hdr[curr_idx].end = mpu_tbl_hdr[curr_idx].start + mem_info[all_range_region_idx].size;
  604. /* 64K align */
  605. mpu_tbl_hdr[curr_idx].end = ((mpu_tbl_hdr[curr_idx].end + 0xFFFF)&(~0xFFFF)) - 1;
  606. mpu_tbl_hdr[curr_idx].region = free_region_id;
  607. mpu_tbl_hdr[curr_idx].relate_region = 0;
  608. curr_idx++;
  609. /* } */
  610. return curr_idx;
  611. }
  612. int plat_send_mpu_info_to_platorm(void *p_md_ld_info, void *p_mem_info)
  613. {
  614. modem_info_t *md_ld_info = (modem_info_t *)p_md_ld_info;
  615. struct image_section_desc *mem_info = (struct image_section_desc *)p_mem_info;
  616. int md_id = md_ld_info->md_id;
  617. int ret;
  618. int i;
  619. char buf[24];
  620. if (md_id == MD_SYS1) {
  621. ret = md1_mpu_setting_process(p_md_ld_info, p_mem_info, &mpu_tbl[s_g_curr_mpu_num]);
  622. if (ret > 0)
  623. s_g_curr_mpu_num += ret;
  624. } else if (md_id == MD_SYS3) {
  625. /* RO part */
  626. mpu_tbl[s_g_curr_mpu_num].permission = get_mpu_region_default_access_att(MPU_REGION_ID_MD3_ROM, 1);
  627. mpu_tbl[s_g_curr_mpu_num].start = (unsigned int)md_ld_info->base_addr + mem_info[0].offset;
  628. mpu_tbl[s_g_curr_mpu_num].end = mpu_tbl[s_g_curr_mpu_num].start + mem_info[0].size;
  629. mpu_tbl[s_g_curr_mpu_num].region = MPU_REGION_ID_MD3_ROM;
  630. /* 64K align */
  631. mpu_tbl[s_g_curr_mpu_num].end = ((mpu_tbl[s_g_curr_mpu_num].end + 0xFFFF)&(~0xFFFF)) - 1;
  632. s_g_curr_mpu_num++;
  633. /* RW part */
  634. mpu_tbl[s_g_curr_mpu_num].permission = get_mpu_region_default_access_att(MPU_REGION_ID_MD3_RW, 1);
  635. mpu_tbl[s_g_curr_mpu_num].start = (unsigned int)md_ld_info->base_addr + mem_info[1].offset;
  636. mpu_tbl[s_g_curr_mpu_num].end = mpu_tbl[s_g_curr_mpu_num].start + mem_info[1].size;
  637. mpu_tbl[s_g_curr_mpu_num].region = MPU_REGION_ID_MD3_RW;
  638. /* 64K align */
  639. mpu_tbl[s_g_curr_mpu_num].end = ((mpu_tbl[s_g_curr_mpu_num].end + 0xFFFF)&(~0xFFFF)) - 1;
  640. s_g_curr_mpu_num++;
  641. }
  642. for (i =0; i < s_g_curr_mpu_num; i++) {
  643. get_mpu_attr_str(0, mpu_tbl[i].permission, buf, 24);
  644. MPU_DBG_LOG("plat mpu dec %d: region:%d[%d], start:0x%x, end:0x%x, attr:%s\n", i,
  645. mpu_tbl[i].region, mpu_tbl[i].relate_region, mpu_tbl[i].start, mpu_tbl[i].end, buf);
  646. }
  647. return 0;
  648. }
  649. /*------------------------------------------------------------------------------------------------*/
  650. /* Suppor function for share memory calculate */
  651. /*------------------------------------------------------------------------------------------------*/
  652. static int cal_share_mem_layout(int load_flag)
  653. {
  654. ap_md1_smem_size_at_lk_env = str2uint(get_env("apmd1_smem"));
  655. md1_md3_smem_size_at_lk_env = str2uint(get_env("md1md3_smem"));
  656. ap_md3_smem_size_at_lk_env = str2uint(get_env("apmd3_smem"));
  657. ALWAYS_LOG("env[apmd1_smem]%x.\n", ap_md1_smem_size_at_lk_env);
  658. ALWAYS_LOG("env[md1md3_smem]%x.\n", md1_md3_smem_size_at_lk_env);
  659. ALWAYS_LOG("env[apmd3_smem]%x.\n", ap_md3_smem_size_at_lk_env);
  660. /* MD Share memory layout */
  661. /* AP <--> MD1 */
  662. /* MD1 <--> MD3 */
  663. /* AP <--> MD3 */
  664. if (load_flag & (1<<MD_SYS3)) {
  665. smem_info.ap_md1_smem_offset = 0;
  666. if (ap_md1_smem_size_at_lk_env)
  667. smem_info.ap_md1_smem_size = ap_md1_smem_size_at_lk_env;
  668. else if (ap_md1_smem_size_at_img)
  669. smem_info.ap_md1_smem_size = ap_md1_smem_size_at_img;
  670. else
  671. smem_info.ap_md1_smem_size = AP_MD1_SMEM_SIZE;
  672. smem_info.md1_md3_smem_offset = (smem_info.ap_md1_smem_offset + smem_info.ap_md1_smem_size + 0x10000 - 1)&(~(0x10000 - 1));
  673. if (md1_md3_smem_size_at_lk_env)
  674. smem_info.md1_md3_smem_size = md1_md3_smem_size_at_lk_env;
  675. else if (md1_md3_smem_size_at_img)
  676. smem_info.md1_md3_smem_size = md1_md3_smem_size_at_img;
  677. else
  678. smem_info.md1_md3_smem_size = MD1_MD3_SMEM_SIZE;
  679. smem_info.ap_md3_smem_offset = smem_info.md1_md3_smem_offset + smem_info.md1_md3_smem_size;
  680. if (ap_md3_smem_size_at_lk_env)
  681. smem_info.ap_md3_smem_size = ap_md3_smem_size_at_lk_env;
  682. else if (ap_md3_smem_size_at_img)
  683. smem_info.ap_md3_smem_size = ap_md3_smem_size_at_img;
  684. else
  685. smem_info.ap_md3_smem_size = AP_MD3_SMEM_SIZE;
  686. smem_info.total_smem_size = smem_info.ap_md3_smem_offset + smem_info.ap_md3_smem_size;
  687. } else {
  688. smem_info.ap_md1_smem_offset = 0;
  689. if (ap_md1_smem_size_at_lk_env)
  690. smem_info.ap_md1_smem_size = ap_md1_smem_size_at_lk_env;
  691. else if (ap_md1_smem_size_at_img)
  692. smem_info.ap_md1_smem_size = ap_md1_smem_size_at_img;
  693. else
  694. smem_info.ap_md1_smem_size = AP_MD1_SMEM_SIZE;
  695. smem_info.md1_md3_smem_offset = 0;
  696. smem_info.md1_md3_smem_size = 0;
  697. smem_info.ap_md3_smem_offset = 0;
  698. smem_info.ap_md3_smem_size = 0;
  699. smem_info.total_smem_size = smem_info.ap_md1_smem_size;
  700. }
  701. /* insert share memory layout to lk info */
  702. if (insert_ccci_tag_inf("smem_layout", (char*)&smem_info, sizeof(smem_layout_t)) < 0)
  703. ALWAYS_LOG("insert smem_layout fail\n");
  704. ALWAYS_LOG("smem_info.base_addr: %x\n", (unsigned int)smem_info.base_addr);
  705. ALWAYS_LOG("smem_info.ap_md1_smem_offset: %x\n", smem_info.ap_md1_smem_offset);
  706. ALWAYS_LOG("smem_info.ap_md1_smem_size: %x\n", smem_info.ap_md1_smem_size);
  707. ALWAYS_LOG("smem_info.ap_md3_smem_offset: %x\n", smem_info.ap_md3_smem_offset);
  708. ALWAYS_LOG("smem_info.ap_md3_smem_size: %x\n", smem_info.ap_md3_smem_size);
  709. ALWAYS_LOG("smem_info.md1_md3_smem_offset: %x\n", smem_info.md1_md3_smem_offset);
  710. ALWAYS_LOG("smem_info.md1_md3_smem_size: %x\n", smem_info.md1_md3_smem_size);
  711. ALWAYS_LOG("smem_info.total_smem_size: %x\n", smem_info.total_smem_size);
  712. return (int)smem_info.total_smem_size;
  713. }
  714. static void boot_to_dummy_ap_mode(int load_md_flag);
  715. /*------------------------------------------------------------------------------------------------*/
  716. /* Note: This function using global variable
  717. ** if set start=0x0, end=0x10000, the actural protected area will be 0x0-0x1FFFF,
  718. ** here we use 64KB align, MPU actually request 32KB align since MT6582, but this works...
  719. ** we assume emi_mpu_set_region_protection will round end address down to 64KB align.
  720. */
  721. int plat_apply_platform_setting(int load_md_flag)
  722. {
  723. int smem_final_size;
  724. #ifdef DUMMY_AP_MODE
  725. /* This function will never return */
  726. ALWAYS_LOG("boot to dummy ap mode!!!\n");
  727. boot_to_dummy_ap_mode(load_md_flag);
  728. return 0;
  729. #endif
  730. /* Check loading validation */
  731. if (((load_md_flag & (1<<MD_SYS1)) == 0) && (load_md_flag & (1<<MD_SYS3))) {
  732. ALWAYS_LOG("md3 depends on md1,but md1 not loaded\n");
  733. return -LD_ERR_PLAT_MD1_NOT_RDY;
  734. }
  735. if ((load_md_flag & ((1<<MD_SYS1)|(1<<MD_SYS3))) == 0) {
  736. ALWAYS_LOG("both md1 and md3 not enable\n");
  737. return 0;
  738. }
  739. smem_final_size = cal_share_mem_layout(load_md_flag);
  740. ALWAYS_LOG("ap md1 share mem MPU need configure\n");
  741. mpu_tbl[s_g_curr_mpu_num].region = MPU_REGION_ID_MD1_SMEM;
  742. mpu_tbl[s_g_curr_mpu_num].permission = get_mpu_region_default_access_att(MPU_REGION_ID_MD1_SMEM, 0);
  743. mpu_tbl[s_g_curr_mpu_num].start = (unsigned int)smem_info.base_addr + smem_info.ap_md1_smem_offset;
  744. mpu_tbl[s_g_curr_mpu_num].end = (unsigned int)smem_info.base_addr + smem_info.ap_md1_smem_offset
  745. + smem_info.ap_md1_smem_size;
  746. mpu_tbl[s_g_curr_mpu_num].end = ((mpu_tbl[s_g_curr_mpu_num].end + 0xFFFF)&(~0xFFFF)) - 1;
  747. s_g_curr_mpu_num++;
  748. if (load_md_flag & (1<<MD_SYS3)) {
  749. ALWAYS_LOG("md1 md3 share mem MPU need configure\n");
  750. mpu_tbl[s_g_curr_mpu_num].region = MPU_REGION_ID_MD1MD3_SMEM;
  751. mpu_tbl[s_g_curr_mpu_num].permission = get_mpu_region_default_access_att(MPU_REGION_ID_MD1MD3_SMEM, 0);
  752. mpu_tbl[s_g_curr_mpu_num].start = (unsigned int)smem_info.base_addr + smem_info.md1_md3_smem_offset;
  753. mpu_tbl[s_g_curr_mpu_num].end = (unsigned int)smem_info.base_addr + smem_info.md1_md3_smem_offset
  754. + smem_info.md1_md3_smem_size;
  755. mpu_tbl[s_g_curr_mpu_num].end = ((mpu_tbl[s_g_curr_mpu_num].end + 0xFFFF)&(~0xFFFF)) - 1;
  756. s_g_curr_mpu_num++;
  757. ALWAYS_LOG("ap md3 share mem MPU need configure\n");
  758. mpu_tbl[s_g_curr_mpu_num].region = MPU_REGION_ID_MD3_SMEM;
  759. mpu_tbl[s_g_curr_mpu_num].permission = get_mpu_region_default_access_att(MPU_REGION_ID_MD3_SMEM, 0);
  760. mpu_tbl[s_g_curr_mpu_num].start = (unsigned int)smem_info.base_addr + smem_info.ap_md3_smem_offset;
  761. mpu_tbl[s_g_curr_mpu_num].end = (unsigned int)smem_info.base_addr + smem_info.ap_md3_smem_offset
  762. + smem_info.ap_md3_smem_size;
  763. mpu_tbl[s_g_curr_mpu_num].end = ((mpu_tbl[s_g_curr_mpu_num].end + 0xFFFF)&(~0xFFFF)) - 1;
  764. s_g_curr_mpu_num++;
  765. }
  766. mpu_tbl[s_g_curr_mpu_num].region = -1; /* mark for end */
  767. /* Insert mpu tag info */
  768. if (insert_ccci_tag_inf("md_mpu_inf", (char*)mpu_tbl, sizeof(mpu_cfg_t)*s_g_curr_mpu_num) < 0)
  769. ALWAYS_LOG("insert md_mpu_inf fail\n");
  770. if (insert_ccci_tag_inf("md_mpu_num", (char*)s_g_curr_mpu_num, sizeof(int)) < 0)
  771. ALWAYS_LOG("insert md_mpu_num fail\n");
  772. /* Apply all MPU setting */
  773. ccci_mem_access_cfg(mpu_tbl, 0);
  774. /* Apply share memory HW remap setting and lock it */
  775. if (load_md_flag & (1<<MD_SYS1)) {
  776. md_smem_rw_remapping(MD_SYS1, (unsigned int)(smem_info.base_addr + smem_info.ap_md1_smem_offset));
  777. md_emi_remapping_lock(MD_SYS1);
  778. }
  779. if (load_md_flag & (1<<MD_SYS3)) {
  780. md_smem_rw_remapping(MD_SYS3, (unsigned int)(smem_info.base_addr + smem_info.md1_md3_smem_offset));
  781. md_emi_remapping_lock(MD_SYS3);
  782. }
  783. return smem_final_size;
  784. }
  785. /*------------------------------------------------------------------------------------------------*/
  786. /* platform configure setting info. */
  787. /*------------------------------------------------------------------------------------------------*/
  788. long long plat_ccci_get_ld_md_plat_setting(char cfg_name[])
  789. {
  790. if (strcmp(cfg_name, "share_memory_size") == 0) {
  791. #ifdef DUMMY_AP_MODE
  792. return 0x200000;
  793. #endif
  794. return (long long)(MAX_SMEM_SIZE);
  795. }
  796. if (strcmp(cfg_name, "share_mem_limit") == 0)
  797. return 0xC0000000LL;
  798. if (strcmp(cfg_name, "ro_rw_mem_limit") == 0) {
  799. #ifdef DUMMY_AP_MODE
  800. return 0xA0000000LL;
  801. #endif
  802. return 0xC0000000LL;
  803. }
  804. if (strcmp(cfg_name, "ro_rw_mem_align") == 0)
  805. return 0x2000000LL;
  806. if (strcmp(cfg_name, "share_mem_align") == 0)
  807. return 0x2000000LL;
  808. if (strcmp(cfg_name, "ld_version") == 0) {
  809. #ifdef DUMMY_AP_MODE
  810. return 0x10001;
  811. #endif
  812. return 0x10000;/* xxxx_yyyy, xxxx: main id, yyyy sub id */
  813. }
  814. return -1LL;
  815. }
  816. #ifdef DUMMY_AP_MODE
  817. #include <platform/mt_irq.h>
  818. extern void dummy_ap_boot_up_md(int md_en_flag);
  819. extern void load_modem_image(void);
  820. extern int dummy_ap_irq_helper(unsigned int);
  821. /* Remember add this function to file platform.c(platform code) */
  822. void dummy_ap_entry(void)
  823. {
  824. load_modem_image();
  825. }
  826. /* Remember add this function to file interrupts.c(platform code) */
  827. void dummy_ap_irq_handler(unsigned int irq)
  828. {
  829. if (dummy_ap_irq_helper(irq)) {
  830. mt_irq_ack(irq);
  831. mt_irq_unmask(irq);
  832. }
  833. }
  834. void boot_to_dummy_ap_mode(int load_md_flag)
  835. {
  836. md_smem_rw_remapping(MD_SYS1, (unsigned int)smem_info.base_addr);
  837. md_smem_rw_remapping(MD_SYS3, (unsigned int)smem_info.base_addr);
  838. /* Before boot dummy AP, clear share memory */
  839. memset((void*)((unsigned long)smem_info.base_addr), 0, 0x200000);
  840. dummy_ap_boot_up_md(load_md_flag);
  841. }
  842. #endif