ReadEeprom.c 11 KB

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  1. #include "ReadEeprom.h"
  2. #include "gd32e23x_libopt.h"
  3. #include "At24cxx.h"
  4. #include "string.h"
  5. #include "Relay.h"
  6. #include "Sn74hc573.h"
  7. #include "main.h"
  8. //uint8_t Eeprom_Rbuf[RELAY_para_sum]={0};
  9. extern uint8_t AC3PPDU_active_chn;
  10. extern uint32_t AC3PPDU_Modbus_Reg[AC3PPDU_Modbus_Reg_len];
  11. extern uint32_t hlw8110_base[Output_ChN_default+1];
  12. /*********************************************************************************************************
  13. * 函数名称:ReadEeprom
  14. * 函数功能:读出Eeprom的数据
  15. * 输入参数:void
  16. * 输出参数:void
  17. * 返 回 值:void
  18. * 创建日期:2024年04月26日
  19. * 注 意:
  20. *********************************************************************************************************/
  21. void ReadEeprom(void)
  22. {
  23. uint8_t i = 0;
  24. uint8_t j = 0;
  25. uint32_t temp0 = 0;
  26. uint32_t temp1 = 0;
  27. //从eeprom中读出数据
  28. AT24CxxRead(0, Eeprom_Rbuf, RELAY_para_sum);
  29. //读出通道数
  30. if((Eeprom_Rbuf[ERom_RL_Ch_N_addr] < 1) || (Eeprom_Rbuf[ERom_RL_Ch_N_addr] > Output_ChN_default))
  31. {
  32. Eeprom_Rbuf[ERom_RL_Ch_N_addr] = Output_ChN_default;
  33. }
  34. AC3PPDU_active_chn = Eeprom_Rbuf[ERom_RL_Ch_N_addr];
  35. //读出输入阈值
  36. for(j = 0;j < ERom_ViLit_max_ByteN;j++)
  37. {
  38. temp0 = 8 * j;
  39. temp0 = 24 - temp0;
  40. AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_max_Addr] += Eeprom_Rbuf[ERom_ViLit_max_Addr + j] << temp0;
  41. AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_min_Addr] += Eeprom_Rbuf[ERom_ViLit_min_Addr + j] << temp0;
  42. AC3PPDU_Modbus_Reg[Mb_Dbuff_IiLit_max_Addr] += Eeprom_Rbuf[ERom_IiLit_max_Addr + j] << temp0;
  43. AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] += Eeprom_Rbuf[ERom_WiLit_max_Addr + j] << temp0;
  44. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] += Eeprom_Rbuf[ERom_kWhiLit_max_Addr + j] << temp0;
  45. }
  46. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_max_Addr] < Vin_LTmin_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_max_Addr] > Vin_LTmax_default))
  47. {
  48. AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_max_Addr] = Vin_LTmax_default;
  49. }
  50. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_min_Addr] < Vin_LTmin_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_min_Addr] > Vin_LTmax_default))
  51. {
  52. AC3PPDU_Modbus_Reg[Mb_Dbuff_ViLit_min_Addr] = Vin_LTmin_default;
  53. }
  54. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_IiLit_max_Addr] > Iin_LTmax_default)
  55. {
  56. AC3PPDU_Modbus_Reg[Mb_Dbuff_IiLit_max_Addr] = Iin_LTmax_default;
  57. }
  58. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] > Win_LTmax_default)
  59. {
  60. AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] = Win_LTmax_default;
  61. }
  62. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] > kWhin_LTmax_default)
  63. {
  64. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] = kWhin_LTmax_default;
  65. }
  66. //读出输出阈值
  67. for(i = 0;i < Output_ChN_default;i++)
  68. {
  69. for(j = 0;j < 4;j++)
  70. {
  71. temp0 = 8 * j;
  72. temp0 = 24 - temp0;
  73. temp1 = 4 * i;
  74. temp1 += j;
  75. AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_max_Addr + i] += Eeprom_Rbuf[ERom_VLit1_max_Addr + temp1] << temp0;
  76. AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_min_Addr + i] += Eeprom_Rbuf[ERom_VLit1_min_Addr + temp1] << temp0;
  77. AC3PPDU_Modbus_Reg[Mb_Dbuff_ILit1_max_Addr + i] += Eeprom_Rbuf[ERom_ILit1_max_Addr + temp1] << temp0;
  78. AC3PPDU_Modbus_Reg[Mb_Dbuff_WLit1_max_Addr + i] += Eeprom_Rbuf[ERom_WLit1_max_Addr + temp1] << temp0;
  79. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhLit1_max_Addr + i] += Eeprom_Rbuf[ERom_kWhLit1_max_Addr + temp1] << temp0;
  80. }
  81. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_max_Addr + i] > Default_Voltage_Max)
  82. {
  83. AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_max_Addr + i] = 0;
  84. }
  85. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_min_Addr + i] > Default_Voltage_Max)
  86. {
  87. AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_min_Addr + i] = 0;
  88. }
  89. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_ILit1_max_Addr + i] > Default_Current_Max)
  90. {
  91. AC3PPDU_Modbus_Reg[Mb_Dbuff_ILit1_max_Addr + i] = 0;
  92. }
  93. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_WLit1_max_Addr + i] > Default_Power_Max)
  94. {
  95. AC3PPDU_Modbus_Reg[Mb_Dbuff_WLit1_max_Addr + i] = 0;
  96. }
  97. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhLit1_max_Addr + i] > AC3MAX_CONSUME)
  98. {
  99. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhLit1_max_Addr + i] = 0;
  100. }
  101. }
  102. //读出输入状态阈值
  103. AC3PPDU_Modbus_Reg[Mb_Dbuff_LT_ST_Addr] = Eeprom_Rbuf[ERom_LT_ST_Addr];
  104. //读出输出状态阈值
  105. for(i = 0;i < Output_ChN_default;i++)
  106. {
  107. temp0 = 2 * i;
  108. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] = Eeprom_Rbuf[ERom_CH1LT_ST_Addr + temp0];
  109. }
  110. //check threshoud enable
  111. for(i = 0;i < Output_ChN_default;i++)
  112. {
  113. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_max_Addr + i] <= THRESHOULD_JUDGMENT)
  114. {
  115. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] &= (Shield_Vmax_Threshould_Disable);
  116. }
  117. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_VLit1_min_Addr + i] <= THRESHOULD_JUDGMENT)
  118. {
  119. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] &= (Shield_Vmin_Threshould_Disable);
  120. }
  121. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_ILit1_max_Addr + i] <= THRESHOULD_JUDGMENT)
  122. {
  123. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] &= (Shield_Imax_Threshould_Disable);
  124. }
  125. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_WLit1_max_Addr + i] <= THRESHOULD_JUDGMENT)
  126. {
  127. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] &= (Shield_Wmax_Threshould_Disable);
  128. }
  129. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhLit1_max_Addr + i] <= THRESHOULD_JUDGMENT)
  130. {
  131. AC3PPDU_Modbus_Reg[Mb_Dbuff_CH1LT_ST_Addr + i] &= (Shield_Kwhmax_Threshould_Disable);
  132. }
  133. }
  134. //read ChN status
  135. AC3PPDU_Modbus_Reg[Mb_Dbuff_CHNLT_ST_Addr] = Eeprom_Rbuf[ERom_CHNLT_ST_Addr]; //add by liyi
  136. //读出输出通道开通和断开延时
  137. for(i = 0;i < Output_ChN_default;i++)
  138. {
  139. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Ton1_Addr + i] = Eeprom_Rbuf[ERom_RL_Ton1_Addr + i];
  140. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Toff1_Addr + i] = Eeprom_Rbuf[ERom_RL_Toff1_Addr + i];
  141. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Ton1_Addr + i] < RELAY_ontime_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Ton1_Addr + i] > RELAY_ontime_max))
  142. {
  143. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Ton1_Addr + i] = RELAY_ontime_default;
  144. }
  145. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Toff1_Addr + i] < RELAY_offtime_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Toff1_Addr + i] > RELAY_offtime_max))
  146. {
  147. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Toff1_Addr + i] = RELAY_offtime_default;
  148. }
  149. }
  150. // read Ch N open or close delay
  151. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_TonN_Addr] = Eeprom_Rbuf[ERom_RL_TonN_Addr]; //add by liyi
  152. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_ToffN_Addr] = Eeprom_Rbuf[ERom_RL_ToffN_Addr];
  153. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_TonN_Addr] < RELAY_ontime_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_TonN_Addr] > RELAY_ontime_max))
  154. {
  155. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_TonN_Addr] = RELAY_ontime_default; //add by liyi
  156. }
  157. if((AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_ToffN_Addr] < RELAY_offtime_default) || (AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_ToffN_Addr] > RELAY_offtime_max))
  158. {
  159. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_ToffN_Addr] = RELAY_offtime_default; //add by liyi
  160. }
  161. //read consumer from eeprom
  162. for(i =0; i < Output_ChN_default;i++)
  163. {
  164. temp0 = i << 2;
  165. temp1 = 8 * i;
  166. AC3PPDU_Modbus_Reg[Mb_Dbuff_Out1Para_Addr + temp1 + 6] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+0] << 24);
  167. AC3PPDU_Modbus_Reg[Mb_Dbuff_Out1Para_Addr + temp1 + 6] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+1] << 16);
  168. AC3PPDU_Modbus_Reg[Mb_Dbuff_Out1Para_Addr + temp1 + 6] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+2] << 8);
  169. AC3PPDU_Modbus_Reg[Mb_Dbuff_Out1Para_Addr + temp1 + 6] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+3]);
  170. //Mb_Dbuff_kWhAP_Addr
  171. temp0 = i << 2;
  172. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhAP_Addr + i] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+0] << 24);
  173. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhAP_Addr + i] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+1] << 16);
  174. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhAP_Addr + i] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+2] << 8);
  175. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhAP_Addr + i] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+3]);
  176. temp0 = i << 2;
  177. hlw8110_base[i+1] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+0] << 24);
  178. hlw8110_base[i+1] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+1] << 16);
  179. hlw8110_base[i+1] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+2] << 8);
  180. hlw8110_base[i+1] += (Eeprom_Rbuf [ERom_TotalWh1_Addr +temp0+3] << 0);
  181. if(hlw8110_base[i+1] > AC3MAX_CONSUME)
  182. {
  183. hlw8110_base[i+1] = 0;
  184. }
  185. }
  186. // read over limit configreation add by liyi
  187. for(int i = 0;i < Output_ChN_default;i++)
  188. {
  189. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Over_Ch1_Func+i] = Eeprom_Rbuf[ERom_RL_Over_Ch1_Addr+i];
  190. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Over_Ch1_Func+i] > 0x0000002F)
  191. {
  192. AC3PPDU_Modbus_Reg[Mb_Dbuff_RL_Over_Ch1_Func+i] = 0;
  193. }
  194. }
  195. for(j = 0;j < ERom_ViLit_max_ByteN;j++)
  196. {
  197. temp0 = 8 * j;
  198. temp0 = 24 - temp0;
  199. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Max] += Eeprom_Rbuf[ERom_VILit_All_max_Addr + j] << temp0;
  200. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Min] += Eeprom_Rbuf[ERom_VILit_All_min_Addr + j] << temp0;
  201. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_IiLit_Max] += Eeprom_Rbuf[ERom_IILit_All_max_Addr + j] << temp0;
  202. AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] += Eeprom_Rbuf[ERom_WILit_All_max_Addr + j] << temp0;
  203. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] += Eeprom_Rbuf[ERom_kWhILit_All_max_Addr + j] << temp0;
  204. }
  205. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Max] > Default_Voltage_Max)
  206. {
  207. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Max] = 0;
  208. }
  209. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Min] > Default_Voltage_Max)
  210. {
  211. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Min] = 0;
  212. }
  213. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_IiLit_Max] > Default_Current_Max)
  214. {
  215. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_IiLit_Max] = 0;
  216. }
  217. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] > Default_Power_Max)
  218. {
  219. AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] = 0;
  220. }
  221. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] > AC3MAX_CONSUME)
  222. {
  223. AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] = 0;
  224. }
  225. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] = 0xFFFFFFFF;
  226. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Max] <= THRESHOULD_JUDGMENT)
  227. {
  228. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] &= (Shield_Vmax_Threshould_Disable);
  229. }
  230. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_ViLit_Min] <= THRESHOULD_JUDGMENT)
  231. {
  232. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] &= (Shield_Vmin_Threshould_Disable);
  233. }
  234. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_IiLit_Max] <= THRESHOULD_JUDGMENT)
  235. {
  236. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] &= (Shield_Imax_Threshould_Disable);
  237. }
  238. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_WiLit_max_Addr] < THRESHOULD_JUDGMENT)
  239. {
  240. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] &= (Shield_Wmax_Threshould_Disable);
  241. }
  242. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_kWhiLit_max_Addr] < THRESHOULD_JUDGMENT)
  243. {
  244. AC3PPDU_Modbus_Reg[Mb_Dbuff_ALL_LT_ST_Addr] &= (Shield_Kwhmax_Threshould_Disable);
  245. }
  246. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_OverFunc] = Eeprom_Rbuf[ERom_ALL_Over_Func_Addr];
  247. if(AC3PPDU_Modbus_Reg[Mb_Dbuff_All_OverFunc] > 0x0000002F)
  248. {
  249. AC3PPDU_Modbus_Reg[Mb_Dbuff_All_OverFunc] = 0;
  250. }
  251. }
  252. /*********************************************************************************************************
  253. * 函数名称:WriteEeprom
  254. * 函数功能:写数据到Eeprom
  255. * 输入参数:void
  256. * 输出参数:void
  257. * 返 回 值:void
  258. * 创建日期:2024年04月26日
  259. * 注 意:
  260. *********************************************************************************************************/
  261. void WriteEeprom(void)
  262. {
  263. }