eeprom.c 11 KB

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  1. /*
  2. * eeprom.c
  3. *
  4. * Created on: 2020. 4. 22.
  5. * Author: parkyj
  6. */
  7. #include <stdio.h>
  8. #include <string.h>
  9. #include "main.h"
  10. #include "eeprom.h"
  11. #include "flash.h"
  12. #include "stm32f1xx_hal.h"
  13. #include "stm32f1xx_hal_gpio.h"
  14. /* Includes ------------------------------------------------------------------*/
  15. HAL_StatusTypeDef EEPROM_M24C08_ByteRead(uint16_t devid,uint16_t Address,uint8_t* data,uint8_t size);
  16. extern uint8_t MBIC_BankBooting_Flash_write(uint8_t* data,uint32_t StartBankAddress);
  17. BLUESTATUS_st bluecell_Currdatastatus;
  18. extern I2C_HandleTypeDef hi2c2;
  19. void EEPROM_M24C08_Init(void){
  20. bool Download_Possible[2] = {false,false};
  21. EEPROM_M24C08_Read(EEPROM_M24C08_ID,EEPROM_WINDOW_STATUS_ADDRESDS,&bluecell_Currdatastatus.bluecell_header,sizeof(BLUESTATUS_st) );
  22. uint32_t CurrApiAddress = 0,Bank1Address=0,Bank2Address = 0;
  23. uint32_t i = 0;
  24. uint8_t ret = 0;
  25. CurrApiAddress = FLASH_MBICUSER_START_ADDR;
  26. Bank1Address = FLASH_USER_BANK1_START_ADDR;
  27. Bank2Address = FLASH_USER_BANK2_START_ADDR;
  28. uint8_t* Currdata = (uint8_t*)CurrApiAddress;
  29. uint8_t* Bank1data = (uint8_t*)Bank1Address;
  30. uint8_t* Bank2data = (uint8_t*)Bank2Address;
  31. uint32_t FileCrc = 0;
  32. uint32_t CrcLength = 0;
  33. uint32_t crcret=0;
  34. printf("Flash Init \r\n");
  35. uint8_t* pdata;
  36. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime1 = Bank1data[MBIC_BOOT_CREATION_TIME + 0];
  37. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime2 = Bank1data[MBIC_BOOT_CREATION_TIME + 1];
  38. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime3 = Bank1data[MBIC_BOOT_CREATION_TIME + 2];
  39. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime4 = Bank1data[MBIC_BOOT_CREATION_TIME + 3];
  40. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime5 = Bank1data[MBIC_BOOT_CREATION_TIME + 4];
  41. bluecell_Currdatastatus.CPU_Bank1_Image_BuildTime6 = Bank1data[MBIC_BOOT_CREATION_TIME + 5];
  42. bluecell_Currdatastatus.CPU_Bank1_Image_Version1 = Bank1data[MBIC_BOOT_VERSION + 0];
  43. bluecell_Currdatastatus.CPU_Bank1_Image_Version2 = Bank1data[MBIC_BOOT_VERSION + 1];
  44. bluecell_Currdatastatus.CPU_Bank1_Image_Version3 = Bank1data[MBIC_BOOT_VERSION + 2];
  45. pdata = &bluecell_Currdatastatus.CPU_Bank1_Image_Name;
  46. printf("BANK1 IMAGE NAME : ");
  47. for(int i = 0 ; i< 32; i++){
  48. pdata[i] = Bank1data[MBIC_BOOT_FILENAME + i];
  49. printf("%c",pdata[i]);
  50. }
  51. printf("\r\n");
  52. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime1 = Bank2data[MBIC_BOOT_CREATION_TIME + 0];
  53. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime2 = Bank2data[MBIC_BOOT_CREATION_TIME + 1];
  54. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime3 = Bank2data[MBIC_BOOT_CREATION_TIME + 2];
  55. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime4 = Bank2data[MBIC_BOOT_CREATION_TIME + 3];
  56. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime5 = Bank2data[MBIC_BOOT_CREATION_TIME + 4];
  57. bluecell_Currdatastatus.CPU_Bank2_Image_BuildTime6 = Bank2data[MBIC_BOOT_CREATION_TIME + 5];
  58. bluecell_Currdatastatus.CPU_Bank2_Image_Version1 = Bank2data[MBIC_BOOT_VERSION + 0];
  59. bluecell_Currdatastatus.CPU_Bank2_Image_Version2 = Bank2data[MBIC_BOOT_VERSION + 1];
  60. bluecell_Currdatastatus.CPU_Bank2_Image_Version3 = Bank2data[MBIC_BOOT_VERSION + 2];
  61. pdata = & bluecell_Currdatastatus.CPU_Bank2_Image_Name;
  62. printf("BANK2 IMAGE NAME : ");
  63. for(int i = 0 ; i< 32; i++){
  64. pdata[i] = Bank2data[MBIC_BOOT_FILENAME + i];
  65. printf("%c",pdata[i]);
  66. }
  67. printf("\r\n");
  68. printf("20%d Y / %d M / %d D / %d H / %d M / %d S \r\n",
  69. Currdata[MBIC_BOOT_CREATION_TIME + 0],
  70. Currdata[MBIC_BOOT_CREATION_TIME + 1],
  71. Currdata[MBIC_BOOT_CREATION_TIME + 2],
  72. Currdata[MBIC_BOOT_CREATION_TIME + 3],
  73. Currdata[MBIC_BOOT_CREATION_TIME + 4],
  74. Currdata[MBIC_BOOT_CREATION_TIME + 5]
  75. );
  76. if(Currdata[MBIC_BOOT_VERSION + 0] == Bank1data[MBIC_BOOT_VERSION + 0]
  77. &&Currdata[MBIC_BOOT_VERSION + 1] == Bank1data[MBIC_BOOT_VERSION + 1]
  78. &&Currdata[MBIC_BOOT_VERSION + 2] == Bank1data[MBIC_BOOT_VERSION + 2]){
  79. ret = HFR_BANK1_SEL;
  80. }else if(
  81. Currdata[MBIC_BOOT_VERSION + 0] == Bank2data[MBIC_BOOT_VERSION + 0]
  82. &&Currdata[MBIC_BOOT_VERSION + 1] == Bank2data[MBIC_BOOT_VERSION + 1]
  83. &&Currdata[MBIC_BOOT_VERSION + 2] == Bank2data[MBIC_BOOT_VERSION + 2]){
  84. ret = HFR_BANK2_SEL;
  85. }else{
  86. ret = 0;
  87. }
  88. bluecell_Currdatastatus.CPU_Current_Bank = ret;
  89. printf("MBIC BANK %d Booting \r\n",bluecell_Currdatastatus.CPU_Current_Bank);
  90. printf("bluecell_Currdatastatus.CPU_Bank_Select : %d \r\n",bluecell_Currdatastatus.CPU_Bank_Select);
  91. if(bluecell_Currdatastatus.CPU_Bank_Select == HFR_BANK2_SEL)
  92. {
  93. ret = HFR_BANK2_SEL;
  94. FileCrc =
  95. ((Bank2data[MBIC_BOOT_CRC] << 24 )
  96. | Bank2data[MBIC_BOOT_CRC + 1]<<16
  97. | Bank2data[MBIC_BOOT_CRC + 2]<<8
  98. | Bank2data[MBIC_BOOT_CRC + 3]);
  99. CrcLength=
  100. ((Bank2data[MBIC_BOOT_LENGTH] << 24 )
  101. | Bank2data[MBIC_BOOT_LENGTH + 1]<<16
  102. | Bank2data[MBIC_BOOT_LENGTH + 2]<<8
  103. | Bank2data[MBIC_BOOT_LENGTH + 3]);
  104. crcret = crc32(&Bank2data[MBIC_BOOT_DATA], CrcLength);
  105. }
  106. else if(bluecell_Currdatastatus.CPU_Bank_Select == HFR_BANK1_SEL)
  107. {
  108. ret = HFR_BANK1_SEL;
  109. FileCrc =
  110. ((Bank1data[MBIC_BOOT_CRC] << 24 )
  111. | Bank1data[MBIC_BOOT_CRC + 1]<<16
  112. | Bank1data[MBIC_BOOT_CRC + 2]<<8
  113. | Bank1data[MBIC_BOOT_CRC + 3]);
  114. CrcLength=
  115. ((Bank1data[MBIC_BOOT_LENGTH] << 24 )
  116. | Bank1data[MBIC_BOOT_LENGTH + 1]<<16
  117. | Bank1data[MBIC_BOOT_LENGTH + 2]<<8
  118. | Bank1data[MBIC_BOOT_LENGTH + 3]);
  119. crcret = crc32(&Bank1data[MBIC_BOOT_DATA], CrcLength);
  120. }
  121. else if(bluecell_Currdatastatus.CPU_Bank_Select == HFR_AUTO_SEL)
  122. {
  123. if(bluecell_Currdatastatus.CPU_Current_Bank == HFR_BANK1_SEL)
  124. {
  125. ret = HFR_BANK1_SEL;
  126. FileCrc =
  127. ((Bank1data[MBIC_BOOT_CRC] << 24 )
  128. | Bank1data[MBIC_BOOT_CRC + 1]<<16
  129. | Bank1data[MBIC_BOOT_CRC + 2]<<8
  130. | Bank1data[MBIC_BOOT_CRC + 3]);
  131. CrcLength=
  132. ((Bank1data[MBIC_BOOT_LENGTH] << 24 )
  133. | Bank1data[MBIC_BOOT_LENGTH + 1]<<16
  134. | Bank1data[MBIC_BOOT_LENGTH + 2]<<8
  135. | Bank1data[MBIC_BOOT_LENGTH + 3]);
  136. crcret = crc32(&Bank1data[MBIC_BOOT_DATA], CrcLength);
  137. }
  138. else
  139. {
  140. ret = HFR_BANK2_SEL;
  141. FileCrc =
  142. ((Bank2data[MBIC_BOOT_CRC] << 24 )
  143. | Bank2data[MBIC_BOOT_CRC + 1]<<16
  144. | Bank2data[MBIC_BOOT_CRC + 2]<<8
  145. | Bank2data[MBIC_BOOT_CRC + 3]);
  146. CrcLength=
  147. ((Bank2data[MBIC_BOOT_LENGTH] << 24 )
  148. | Bank2data[MBIC_BOOT_LENGTH + 1]<<16
  149. | Bank2data[MBIC_BOOT_LENGTH + 2]<<8
  150. | Bank2data[MBIC_BOOT_LENGTH + 3]);
  151. }
  152. crcret = crc32(&Bank2data[MBIC_BOOT_DATA], CrcLength);
  153. }
  154. printf("CRC LENGTH : %d,CRC LENGTH : %X \r\n",CrcLength,CrcLength);
  155. if(crcret != FileCrc){
  156. printf("CRC ERROR : %x , File CRC : %x \r\n",crcret,FileCrc);
  157. return;
  158. }
  159. else
  160. printf("CRC SUCCESS : %x , File CRC : %x \r\n",crcret,FileCrc);
  161. if(bluecell_Currdatastatus.CPU_Bank_Select == HFR_BANK1_SEL && bluecell_Currdatastatus.CPU_Current_Bank != HFR_BANK1_SEL){
  162. printf("Write Start BANK 1 Down Start\r\n");
  163. MBIC_BankBooting_Flash_write((uint32_t*)FLASH_USER_BANK1_START_ADDR,FLASH_MBICUSER_START_ADDR);
  164. bluecell_Currdatastatus.CPU_Bank_Select = 5;
  165. }else if(bluecell_Currdatastatus.CPU_Bank_Select == HFR_BANK2_SEL && bluecell_Currdatastatus.CPU_Current_Bank != HFR_BANK2_SEL){
  166. printf("Write Start BANK 2 Down Start\r\n");
  167. MBIC_BankBooting_Flash_write((uint32_t*)FLASH_USER_BANK2_START_ADDR,FLASH_MBICUSER_START_ADDR);
  168. bluecell_Currdatastatus.CPU_Bank_Select = 6;
  169. }
  170. else if (bluecell_Currdatastatus.CPU_Bank_Select == HFR_AUTO_SEL || bluecell_Currdatastatus.CPU_Bank_Select == 7){
  171. if(bluecell_Currdatastatus.CPU_Current_Bank == HFR_BANK1_SEL){
  172. printf("Write Start BANK BANK 1 Down Start\r\n");
  173. MBIC_BankBooting_Flash_write((uint32_t*)FLASH_USER_BANK2_START_ADDR,FLASH_MBICUSER_START_ADDR);
  174. }else{
  175. printf("Write Start BANK BANK 2 Down Start\r\n");
  176. MBIC_BankBooting_Flash_write((uint32_t*)FLASH_USER_BANK1_START_ADDR,FLASH_MBICUSER_START_ADDR);
  177. }
  178. bluecell_Currdatastatus.CPU_Bank_Select = 3;
  179. }
  180. EEPROM_M24C08_write(EEPROM_M24C08_ID ,(EEPROM_WINDOW_STATUS_ADDRESDS),&bluecell_Currdatastatus.bluecell_header,sizeof(BLUESTATUS_st));
  181. printf("EEPROM INIT COMPLETE\r\n");
  182. }
  183. #define MAXEEPROM_LENG 32
  184. HAL_StatusTypeDef EEPROM_M24C08_Read(uint8_t devid,uint16_t Address,uint8_t* data,uint16_t size){
  185. HAL_StatusTypeDef ret = HAL_ERROR;
  186. // uint16_t sizecnt = 0,
  187. //uint16_t sizeremain = 0;
  188. // uint16_t addrees_inc = 0;
  189. // ret = HAL_I2C_Mem_Read(&hi2c2, devid | ((Address & 0x0300) >> 7),((Address )), I2C_MEMADD_SIZE_8BIT, &data[0], size, 1024);
  190. ret = HAL_I2C_Mem_Read(&hi2c2, devid ,((Address )), I2C_MEMADD_SIZE_16BIT, &data[0], size, 1024);
  191. // EEPROM24XX_Load( Address,data, size);
  192. if(ret == HAL_ERROR)
  193. printf("Write ERR\r\n");
  194. else
  195. HAL_Delay(20);
  196. return ret;
  197. }
  198. HAL_StatusTypeDef EEPROM_M24C08_write(uint8_t devid,uint16_t Address,uint8_t* data,uint16_t size){
  199. HAL_StatusTypeDef ret = HAL_ERROR;
  200. uint8_t sizecnt = 0,sizeremain = 0;
  201. uint16_t addrees_inc = 0;
  202. sizecnt = size /MAXEEPROM_LENG;
  203. sizeremain = size % MAXEEPROM_LENG;
  204. addrees_inc = 0;
  205. if(sizecnt > 0){
  206. for(int i = 0 ; i < sizecnt; i++ ){
  207. addrees_inc = i * MAXEEPROM_LENG;
  208. ret = HAL_I2C_Mem_Write(&hi2c2, devid ,((Address + addrees_inc) & 0xFFFF) , I2C_MEMADD_SIZE_16BIT, &data[addrees_inc], MAXEEPROM_LENG, 1024);
  209. if(ret == HAL_ERROR)
  210. printf("Write ERR\r\n");
  211. else
  212. HAL_Delay(20);
  213. }
  214. addrees_inc += MAXEEPROM_LENG;
  215. }
  216. // printf("Remain Data Index : %d \r\n",sizeremain);
  217. if(sizeremain > 0){
  218. // printf("Remain Data Write Start ");
  219. for(int i = 0; i < sizeremain; i++){
  220. ret = HAL_I2C_Mem_Write(&hi2c2, devid ,((Address + addrees_inc + i)& 0xFFFF) , I2C_MEMADD_SIZE_16BIT, &data[addrees_inc + i], 1, 1024);
  221. // EEPROM24XX_Save( Address,data, size);
  222. if(ret == HAL_ERROR)
  223. printf("Write ERR\r\n");
  224. else
  225. HAL_Delay(20);
  226. }
  227. }
  228. return ret;
  229. }
  230. HAL_StatusTypeDef EEPROM_M24C08_Zerowrite(uint8_t devid,uint16_t Address){
  231. HAL_StatusTypeDef ret = HAL_ERROR;
  232. // uint8_t sizeremain = 0;
  233. uint16_t addrees_inc = 0;
  234. addrees_inc = 0;
  235. uint8_t data[4096] = {0,};
  236. for(int i = 0 ; i < 128; i++ ){
  237. addrees_inc = i * MAXEEPROM_LENG;
  238. ret = HAL_I2C_Mem_Write(&hi2c2, devid ,((Address + addrees_inc) & 0xFFFF) , I2C_MEMADD_SIZE_16BIT, &data[0], MAXEEPROM_LENG, 1024);
  239. if(ret == HAL_ERROR)
  240. printf("Write ERR\r\n");
  241. else
  242. HAL_Delay(20);
  243. }
  244. return ret;
  245. }