cascade_slave.c 14 KB

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  1. #include "modbus.h"
  2. #include "common.h"
  3. #include "list.h"
  4. #include "switch_ctrl.h"
  5. #include "cascade.h"
  6. static inline GlobalDeviceManager* get_dm(void)
  7. {
  8. return &__globalDeviceManage;
  9. }
  10. static inline GlobalDeviceManager* get_dm2(void)
  11. {
  12. return &__globalDeviceManage2;
  13. }
  14. static mmap_modbus_t modbus_single[] = {
  15. {.offset = 4000},
  16. {.offset = 4001},
  17. {.offset = 4769},
  18. {.offset = 4777},
  19. {.offset = 4841},
  20. {.offset = 4905},
  21. };
  22. static mmap_modbus_t modbus_dc[] = {
  23. {.offset = 6000},
  24. {.offset = 6001},
  25. {.offset = 6002},
  26. {.offset = 6003},
  27. {.offset = 6004},
  28. {.offset = 6005},
  29. };
  30. int cascade_slave_map_init(cascade_handle_t *cas)
  31. {
  32. GlobalDeviceManager* mgr = get_dm();
  33. if(mgr->_global_device_info->product_pwr_type == SmartPDU_AC) // single AC
  34. {
  35. cas->map = modbus_mapping_new_start_address(0,0,0,0,4000,5000,0,0); //3000 ge
  36. modbus_single[0].addr = &mgr->single_mmap->dev_chn;
  37. modbus_single[1].addr = &mgr->single_mmap->all_ch;
  38. modbus_single[2].addr = &mgr->single_mmap->total_valtage;
  39. modbus_single[3].addr = &mgr->single_mmap->chn_status;
  40. modbus_single[4].addr = &mgr->single_mmap->open_delay;
  41. modbus_single[5].addr = &mgr->single_mmap->close_delay;
  42. printf("single address init 4000\n");
  43. }else if(mgr->_global_device_info->product_pwr_type == SmartPDU_DC)
  44. {
  45. cas->map = modbus_mapping_new_start_address(0,0,0,0,6000,5000,0,0); //3000 ge
  46. modbus_dc[0].addr = &mgr->dc_mmap->dev_chn;
  47. modbus_dc[1].addr = &mgr->dc_mmap->i_valtage;
  48. modbus_dc[2].addr = &mgr->dc_mmap->i_current;
  49. modbus_dc[3].addr = &mgr->dc_mmap->i_power;
  50. modbus_dc[4].addr = &mgr->dc_mmap->i_consumption;
  51. modbus_dc[5].addr = &mgr->dc_mmap->o_pw_info;
  52. printf("dc address init 4000\n");
  53. }else
  54. {
  55. return -1;
  56. }
  57. return 0;
  58. }
  59. void cascade_slave_read(cascade_handle_t *cas,uint32_t addr,uint32_t lenth)
  60. {
  61. GlobalDeviceManager* mgr = get_dm();
  62. if(mgr->_global_device_info->product_pwr_type == SmartPDU_AC)
  63. {
  64. switch (addr)
  65. {
  66. case 4000:
  67. {
  68. uint32_t *base_addr = (uint32_t *)modbus_single[0].addr;
  69. uint32_t step = addr - cas->map->start_registers;
  70. base_addr = base_addr + (addr - modbus_single[0].offset);
  71. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  72. printf("step = %d base_addr = 0x%x map_addr = 0x%x\n", step,base_addr,map_addr);
  73. if(lenth < 126)
  74. {
  75. pthread_mutex_lock(&cas->mutex);
  76. memcpy(map_addr, base_addr,2*lenth);
  77. pthread_mutex_unlock(&cas->mutex);
  78. }
  79. }
  80. break;
  81. case 4001 ... 4768:
  82. {
  83. uint32_t *base_addr = (uint32_t *)modbus_single[1].addr;
  84. uint32_t step = addr - cas->map->start_registers;
  85. base_addr = base_addr + (addr - modbus_single[1].offset);
  86. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  87. printf("step = %d base_addr = 0x%x map_addr = 0x%x\n", step,base_addr,map_addr);
  88. if(lenth < 126)
  89. {
  90. pthread_mutex_lock(&cas->mutex);
  91. memcpy(map_addr, base_addr,2*lenth);
  92. pthread_mutex_unlock(&cas->mutex);
  93. }
  94. }
  95. break;
  96. case 4769 ... 4776:
  97. {
  98. uint32_t *base_addr = (uint32_t *)modbus_single[2].addr;
  99. uint32_t step = addr - cas->map->start_registers;
  100. base_addr = base_addr + (addr - modbus_single[2].offset);
  101. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  102. if(lenth < 126)
  103. {
  104. pthread_mutex_lock(&cas->mutex);
  105. memcpy(map_addr, base_addr,2*lenth);
  106. pthread_mutex_unlock(&cas->mutex);
  107. }
  108. }
  109. break;
  110. case 4777 ... 4840:
  111. {
  112. uint32_t *base_addr = (uint32_t *)modbus_single[3].addr;
  113. uint32_t step = addr - cas->map->start_registers;
  114. base_addr = base_addr + (addr - modbus_single[3].offset);
  115. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  116. if(lenth < 126)
  117. {
  118. pthread_mutex_lock(&cas->mutex);
  119. memcpy(map_addr, base_addr,2*lenth);
  120. pthread_mutex_unlock(&cas->mutex);
  121. }
  122. }
  123. break;
  124. case 4841 ... 4904:
  125. {
  126. uint32_t *base_addr = (uint32_t *)modbus_single[4].addr;
  127. uint32_t step = addr - cas->map->start_registers;
  128. base_addr = base_addr + (addr - modbus_single[4].offset);
  129. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  130. if (lenth < 126)
  131. {
  132. pthread_mutex_lock(&cas->mutex);
  133. memcpy(map_addr, base_addr, 2 * lenth);
  134. pthread_mutex_unlock(&cas->mutex);
  135. }
  136. }
  137. break;
  138. case 4905 ... 4968:
  139. {
  140. uint32_t *base_addr = (uint32_t *)modbus_single[5].addr;
  141. uint32_t step = addr - cas->map->start_registers;
  142. base_addr = base_addr + (addr - modbus_single[5].offset);
  143. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  144. if (lenth < 126)
  145. {
  146. pthread_mutex_lock(&cas->mutex);
  147. memcpy(map_addr, base_addr, 2 * lenth);
  148. pthread_mutex_unlock(&cas->mutex);
  149. }
  150. }
  151. break;
  152. default:
  153. break;
  154. }
  155. }else if(mgr->_global_device_info->product_pwr_type == SmartPDU_DC)
  156. {
  157. switch (addr)
  158. {
  159. case 6000:
  160. {
  161. uint32_t *base_addr = (uint32_t *)modbus_dc[0].addr;
  162. uint32_t step = addr - cas->map->start_registers;
  163. base_addr = base_addr + (addr - modbus_dc[0].offset);
  164. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  165. printf("step = %d base_addr = 0x%x map_addr = 0x%x\n", step,base_addr,map_addr);
  166. if(lenth < 126)
  167. {
  168. pthread_mutex_lock(&cas->mutex);
  169. memcpy(map_addr, base_addr,2*lenth);
  170. pthread_mutex_unlock(&cas->mutex);
  171. }
  172. }
  173. break;
  174. case 6001:
  175. {
  176. uint32_t *base_addr = (uint32_t *)modbus_dc[1].addr;
  177. uint32_t step = addr - cas->map->start_registers;
  178. base_addr = base_addr + (addr - modbus_dc[1].offset);
  179. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  180. if(lenth < 126)
  181. {
  182. pthread_mutex_lock(&cas->mutex);
  183. memcpy(map_addr, base_addr,2*lenth);
  184. pthread_mutex_unlock(&cas->mutex);
  185. }
  186. }
  187. break;
  188. case 6002:
  189. {
  190. uint32_t *base_addr = (uint32_t *)modbus_dc[2].addr;
  191. uint32_t step = addr - cas->map->start_registers;
  192. base_addr = base_addr + (addr - modbus_dc[2].offset);
  193. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  194. if(lenth < 126)
  195. {
  196. pthread_mutex_lock(&cas->mutex);
  197. memcpy(map_addr, base_addr,2*lenth);
  198. pthread_mutex_unlock(&cas->mutex);
  199. }
  200. }
  201. break;
  202. case 6003:
  203. {
  204. uint32_t *base_addr = (uint32_t *)modbus_dc[3].addr;
  205. uint32_t step = addr - cas->map->start_registers;
  206. base_addr = base_addr + (addr - modbus_dc[3].offset);
  207. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  208. if(lenth < 126)
  209. {
  210. pthread_mutex_lock(&cas->mutex);
  211. memcpy(map_addr, base_addr,2*lenth);
  212. pthread_mutex_unlock(&cas->mutex);
  213. }
  214. }
  215. break;
  216. case 6004:
  217. {
  218. uint32_t *base_addr = (uint32_t *)modbus_dc[4].addr;
  219. uint32_t step = addr - cas->map->start_registers;
  220. base_addr = base_addr + (addr - modbus_dc[4].offset);
  221. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  222. if(lenth < 126)
  223. {
  224. pthread_mutex_lock(&cas->mutex);
  225. memcpy(map_addr, base_addr,2*lenth);
  226. pthread_mutex_unlock(&cas->mutex);
  227. }
  228. }
  229. break;
  230. case 6005 ... 6260:
  231. {
  232. uint32_t *base_addr = (uint32_t *)modbus_dc[5].addr;
  233. uint32_t step = addr - cas->map->start_registers;
  234. base_addr = base_addr + (addr - modbus_dc[5].offset);
  235. uint16_t *map_addr = (uint16_t *)&(cas->map->tab_registers[step]);
  236. if(lenth < 126)
  237. {
  238. pthread_mutex_lock(&cas->mutex);
  239. memcpy(map_addr, base_addr,2*lenth);
  240. pthread_mutex_unlock(&cas->mutex);
  241. }
  242. }
  243. break;
  244. default:
  245. break;
  246. }
  247. }
  248. }
  249. void cascade_slave_write(cascade_handle_t *cas, uint32_t addr, uint16_t val)
  250. {
  251. GlobalDeviceManager* mgr = get_dm();
  252. uint16_t buff[128] = {0};
  253. if(mgr->_global_device_info->product_pwr_type == SmartPDU_AC)
  254. {
  255. switch(addr)
  256. {
  257. case 5128 ... 5191:
  258. {
  259. int start_chn = addr - 5128 + 1;
  260. GlobalPowerManger* _globalPowerMangerTemp = NULL ;
  261. list_for_each_entry(_globalPowerMangerTemp, &__globalDeviceManage._globalPowerManger.list, list)
  262. {
  263. if(_globalPowerMangerTemp==NULL)
  264. break;
  265. if((start_chn+1) == _globalPowerMangerTemp->product_ch_id)
  266. {
  267. int ret=g_switch_set_all_chn_ctrl(&__globalDeviceManage._globalRelaySampManger,_globalPowerMangerTemp,
  268. _globalPowerMangerTemp->product_saddr,
  269. _globalPowerMangerTemp->product_ch_addr,
  270. val,false);
  271. // printf("ret = %d 0x%x\n",ret,val);
  272. break;
  273. }
  274. }
  275. }
  276. break;
  277. case 5192:
  278. {
  279. GlobalPowerManger* _globalPowerMangerTemp = NULL ;
  280. list_for_each_entry(_globalPowerMangerTemp, &__globalDeviceManage._globalPowerManger.list, list)
  281. {
  282. if(_globalPowerMangerTemp==NULL)
  283. break;
  284. int rec=g_switch_set_all_ctrl(&__globalDeviceManage._globalRelaySampManger,_globalPowerMangerTemp->product_ch_type,_globalPowerMangerTemp->product_saddr,val);
  285. //printf("rec = %d 0x%x\n",rec,val);
  286. }
  287. }
  288. break;
  289. default:
  290. break;
  291. }
  292. }else if(mgr->_global_device_info->product_pwr_type == SmartPDU_DC)
  293. {
  294. switch (addr)
  295. {
  296. case 6756 ... 6819:
  297. {
  298. int start_chn = addr - 6756 + 1;
  299. GlobalPowerManger* _globalPowerMangerTemp = NULL;
  300. list_for_each_entry(_globalPowerMangerTemp, &__globalDeviceManage._globalPowerManger.list, list)
  301. {
  302. if(_globalPowerMangerTemp==NULL)
  303. break;
  304. if((start_chn+1) == _globalPowerMangerTemp->product_ch_id)
  305. {
  306. int ret=g_switch_set_all_chn_ctrl(&__globalDeviceManage._globalRelaySampManger,_globalPowerMangerTemp,
  307. _globalPowerMangerTemp->product_saddr,
  308. _globalPowerMangerTemp->product_ch_addr,
  309. val,false);
  310. break;
  311. }
  312. }
  313. }
  314. break;
  315. case 7012:
  316. {
  317. GlobalPowerManger* _globalPowerMangerTemp = NULL ;
  318. list_for_each_entry(_globalPowerMangerTemp, &__globalDeviceManage._globalPowerManger.list, list)
  319. {
  320. if(_globalPowerMangerTemp==NULL)
  321. break;
  322. if(val == 0x1)
  323. g_switch_set_all_ctrl(&__globalDeviceManage._globalRelaySampManger,_globalPowerMangerTemp->product_ch_type,_globalPowerMangerTemp->product_saddr,1);
  324. }
  325. }
  326. break;
  327. case 7013:
  328. {
  329. GlobalPowerManger* _globalPowerMangerTemp = NULL ;
  330. list_for_each_entry(_globalPowerMangerTemp, &__globalDeviceManage._globalPowerManger.list, list)
  331. {
  332. if(_globalPowerMangerTemp==NULL)
  333. break;
  334. if(val == 0x1)
  335. g_switch_set_all_ctrl(&__globalDeviceManage._globalRelaySampManger,_globalPowerMangerTemp->product_ch_type,_globalPowerMangerTemp->product_saddr,0);
  336. }
  337. }
  338. break;
  339. default:
  340. break;
  341. }
  342. }
  343. }