Electricity.c 12 KB

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  1. /*********************************************************************************************************
  2. * Module : Electricity.c
  3. * Abstract : Electricity modules.
  4. * Version : 1.0.0
  5. * Author : Leopul(COPYRIGHT 2025 - 2027 Leopul. All rights reserved.)
  6. * Complete : 2025-02-16
  7. * Content : None
  8. * Note : None
  9. *********************************************************************************************************/
  10. #include "Electricity.h"
  11. #include "Uart1.h"
  12. #include "Hlw8110.h"
  13. #include "SysTick.h"
  14. #include "main.h"
  15. #include "FreeRTOS.h"
  16. #include "task.h"
  17. void electricity_read(uint8_t channel);
  18. static void check_wanning(uint8_t channel);
  19. void electricity_init()
  20. {
  21. InitCH448F();
  22. InitUART1(9600);
  23. sts_data_t *data = get_sts();
  24. data->read_ele = electricity_read;
  25. data->check_wanning = check_wanning;
  26. }
  27. extern float F_AC_V;
  28. extern float F_AC_I;
  29. extern float F_AC_P;
  30. extern float F_AC_LINE_Freq;
  31. extern float F_AC_E;
  32. extern float F_AC_PF;
  33. extern float F_Angle;
  34. extern uint32_t read_ele_count;
  35. extern uint8_t read_ele_flag;
  36. void electricity_read(uint8_t channel)
  37. {
  38. electricity_t ele = {0};
  39. sts_data_t *data = get_sts();
  40. select_channel(channel);
  41. if(channel == 0)
  42. {
  43. Calculate_HLW8110_MeterData(data->m_data.m_rw.rw_data.md_eep.output_arg.i_k,data->m_data.m_rw.rw_data.md_eep.output_arg.v_k);
  44. }else
  45. {
  46. Calculate_HLW8110_MeterData(data->m_data.m_rw.rw_data.md_eep.input_arg[channel-1].i_k,data->m_data.m_rw.rw_data.md_eep.input_arg[channel-1].v_k);
  47. }
  48. if(F_AC_V < 6.0)
  49. {
  50. F_AC_V = 0.0;
  51. F_AC_I = 0.0;
  52. F_AC_P = 0.0;
  53. F_AC_LINE_Freq = 0.0;
  54. F_AC_PF = 0.0;
  55. }else if(F_AC_PF < 0.1 || F_AC_PF > 1 || F_AC_P < 1)
  56. {
  57. F_AC_I = 0.0;
  58. F_AC_P = 0.0;
  59. F_AC_PF = 0.0;
  60. }else if(F_AC_LINE_Freq > 100)
  61. {
  62. F_AC_LINE_Freq = 0.0;
  63. }
  64. if(channel == 0)
  65. {
  66. data->m_data.m_r.r_data.out_power.voltage = F_AC_V * 1000;
  67. data->m_data.m_r.r_data.out_power.current = F_AC_I * 1000;
  68. data->m_data.m_r.r_data.out_power.power = F_AC_P* 1000;
  69. data->m_data.m_r.r_data.out_power.freq = F_AC_LINE_Freq * 1000;
  70. data->m_data.m_r.r_data.out_power.factor = F_AC_PF * 1000;
  71. data->iic_consumer += F_AC_E;
  72. data->m_data.m_r.r_data.out_power.consumer = data->iic_consumer * 1000;
  73. }else
  74. {
  75. data->m_data.m_r.r_data.input[channel-1].voltage = F_AC_V * 1000;
  76. data->m_data.m_r.r_data.input[channel-1].freq = F_AC_LINE_Freq * 1000;
  77. }
  78. }
  79. extern void beep_timer_start(int cou2,uint32_t inval);
  80. static void check_voltage_max(uint8_t channel)
  81. {
  82. sts_data_t *data = get_sts();
  83. if(channel == CH448_CHANNEL_1)
  84. {
  85. if(data->output_wanning_en.vmax_en) {
  86. if(data->m_data.m_r.r_data.out_power.voltage > data->m_data.m_rw.rw_data.md_eep.output_th.voltage_max_1)
  87. {
  88. data->m_data.m_r.r_data.output_waning.out_waning.vmax_wa_1 = 1;
  89. if(!data->o_beep.o_t.o_v_max)
  90. {
  91. data->o_beep.o_t.o_v_max =1;
  92. beep_timer_start(20,300);
  93. // data->o_beep_flag.o_t.o_v_max =1;
  94. // data->beep_count = data->wanning_count;
  95. }
  96. if(data->m_data.m_r.r_data.out_power.voltage > data->m_data.m_rw.rw_data.md_eep.output_th.voltage_max_2)
  97. {
  98. data->m_data.m_r.r_data.output_waning.out_waning.vmax_wa_2 = 1;
  99. //data->close_output();
  100. }
  101. }else
  102. {
  103. data->m_data.m_r.r_data.output_waning.out_waning.vmax_wa_1 = 0;
  104. data->m_data.m_r.r_data.output_waning.out_waning.vmax_wa_2 = 0;
  105. if(data->o_beep.o_t.o_v_max)
  106. {
  107. data->o_beep.o_t.o_v_max = 0;
  108. //data->o_beep_flag.o_t.o_v_max = 0;
  109. }
  110. }
  111. }
  112. }else
  113. {
  114. uint8_t chn = channel-1;
  115. if(data->input_wanning_en[chn].vmax_en) {
  116. if(data->m_data.m_r.r_data.input[chn].voltage > data->m_data.m_rw.rw_data.md_eep.input_th[chn].voltage_max_1)
  117. {
  118. if(!data->i_beep[chn].i_t.i_v_max)
  119. {
  120. beep_timer_start(20,300);
  121. data->i_beep[chn].i_t.i_v_max =1;
  122. data->i_beep_flag[chn].i_t.i_v_max =1;
  123. data->beep_count = data->wanning_count;
  124. }
  125. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmax_wa_1 = 1;
  126. if(data->m_data.m_r.r_data.input[chn].voltage > data->m_data.m_rw.rw_data.md_eep.input_th[chn].voltage_max_2)
  127. {
  128. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmax_wa_2 = 1;
  129. }
  130. }else
  131. {
  132. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmax_wa_1 = 0;
  133. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmax_wa_2 = 0;
  134. data->i_beep[chn].i_t.i_v_max =0;
  135. data->i_beep_flag[chn].i_t.i_v_max =0;
  136. }
  137. }
  138. }
  139. }
  140. static void check_voltage_min(uint8_t channel)
  141. {
  142. sts_data_t *data = get_sts();
  143. if(channel == CH448_CHANNEL_1)
  144. {
  145. if(data->output_wanning_en.vmin_en) {
  146. if(data->m_data.m_r.r_data.out_power.voltage < data->m_data.m_rw.rw_data.md_eep.output_th.voltage_min_1)
  147. {
  148. if(!data->o_beep.o_t.o_v_max)
  149. {
  150. beep_timer_start(20,300);
  151. data->o_beep.o_t.o_v_min =1;
  152. data->o_beep_flag.o_t.o_v_min =1;
  153. data->beep_count = data->wanning_count;
  154. }
  155. data->m_data.m_r.r_data.output_waning.out_waning.vmin_wa_1 = 1;
  156. if(data->m_data.m_r.r_data.out_power.voltage < data->m_data.m_rw.rw_data.md_eep.output_th.voltage_min_2)
  157. {
  158. data->m_data.m_r.r_data.output_waning.out_waning.vmin_wa_2 = 1;
  159. //data->close_output();
  160. }
  161. }else
  162. {
  163. data->o_beep.o_t.o_v_min = 0;
  164. data->o_beep_flag.o_t.o_v_min = 0;
  165. data->m_data.m_r.r_data.output_waning.out_waning.vmin_wa_1 = 0;
  166. data->m_data.m_r.r_data.output_waning.out_waning.vmin_wa_2 = 0;
  167. }
  168. }
  169. }else
  170. {
  171. uint8_t chn = channel-1;
  172. if(data->input_wanning_en[chn].vmin_en) {
  173. if(data->m_data.m_r.r_data.input[chn].voltage < data->m_data.m_rw.rw_data.md_eep.input_th[chn].voltage_min_1)
  174. {
  175. if(!data->i_beep[chn].i_t.i_v_min)
  176. {
  177. beep_timer_start(20,300);
  178. data->i_beep[chn].i_t.i_v_min =1;
  179. data->i_beep_flag[chn].i_t.i_v_min =1;
  180. data->beep_count = data->wanning_count;
  181. }
  182. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmin_wa_1 = 1;
  183. if(data->m_data.m_r.r_data.input[chn].voltage < data->m_data.m_rw.rw_data.md_eep.input_th[chn].voltage_min_2)
  184. {
  185. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmin_wa_2 = 1;
  186. }
  187. }else
  188. {
  189. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmin_wa_1 = 0;
  190. data->m_data.m_r.r_data.input_wanning.in_wan[chn].vmin_wa_2 = 0;
  191. data->i_beep[chn].i_t.i_v_min =0;
  192. data->i_beep_flag[chn].i_t.i_v_min =0;
  193. }
  194. }
  195. }
  196. }
  197. static void check_current_max(uint8_t channel)
  198. {
  199. sts_data_t *data = get_sts();
  200. if(channel == CH448_CHANNEL_1)
  201. {
  202. if(data->output_wanning_en.imax_en) {
  203. if(data->m_data.m_r.r_data.out_power.current > data->m_data.m_rw.rw_data.md_eep.output_th.current_max_1)
  204. {
  205. data->m_data.m_r.r_data.output_waning.out_waning.imax_wa_1 = 1;
  206. if(!data->o_beep.o_t.o_i_max)
  207. {
  208. beep_timer_start(20,300);
  209. data->o_beep.o_t.o_i_max =1;
  210. data->o_beep_flag.o_t.o_i_max =1;
  211. data->beep_count = data->wanning_count;
  212. }
  213. if(data->m_data.m_r.r_data.out_power.current > data->m_data.m_rw.rw_data.md_eep.output_th.current_max_2)
  214. {
  215. data->m_data.m_r.r_data.output_waning.out_waning.imax_wa_2 = 1;
  216. }
  217. }else
  218. {
  219. data->o_beep.o_t.o_i_max =0;
  220. data->o_beep_flag.o_t.o_i_max =0;
  221. data->m_data.m_r.r_data.output_waning.out_waning.imax_wa_1 = 0;
  222. data->m_data.m_r.r_data.output_waning.out_waning.imax_wa_2 = 0;
  223. }
  224. }
  225. }
  226. }
  227. static void check_power_max(uint8_t channel)
  228. {
  229. sts_data_t *data = get_sts();
  230. if(channel == CH448_CHANNEL_1)
  231. {
  232. if(data->output_wanning_en.pmax_en) {
  233. if(data->m_data.m_r.r_data.out_power.power > data->m_data.m_rw.rw_data.md_eep.output_th.power_max_1)
  234. {
  235. if(!data->o_beep.o_t.o_p_max)
  236. {
  237. beep_timer_start(20,300);
  238. data->o_beep.o_t.o_p_max =1;
  239. data->o_beep_flag.o_t.o_p_max =1;
  240. data->beep_count = data->wanning_count;
  241. }
  242. data->m_data.m_r.r_data.output_waning.out_waning.pmax_wa_1 = 1;
  243. if(data->m_data.m_r.r_data.out_power.power > data->m_data.m_rw.rw_data.md_eep.output_th.power_max_2)
  244. {
  245. data->m_data.m_r.r_data.output_waning.out_waning.pmax_wa_2 = 1;
  246. }
  247. }else
  248. {
  249. data->o_beep.o_t.o_p_max = 0;
  250. data->o_beep_flag.o_t.o_p_max = 0;
  251. data->m_data.m_r.r_data.output_waning.out_waning.pmax_wa_1 = 0;
  252. data->m_data.m_r.r_data.output_waning.out_waning.pmax_wa_2 = 0;
  253. }
  254. }
  255. }
  256. }
  257. static void check_consumer_max(uint8_t channel)
  258. {
  259. sts_data_t *data = get_sts();
  260. if(channel == CH448_CHANNEL_1)
  261. {
  262. if(data->output_wanning_en.cmax_en) {
  263. if(data->m_data.m_r.r_data.out_power.consumer > data->m_data.m_rw.rw_data.md_eep.output_th.consumer_max_1)
  264. {
  265. if(!data->o_beep.o_t.o_c_max)
  266. {
  267. beep_timer_start(20,300);
  268. data->o_beep.o_t.o_c_max =1;
  269. data->o_beep_flag.o_t.o_c_max =1;
  270. data->beep_count = data->wanning_count;
  271. }
  272. data->m_data.m_r.r_data.output_waning.out_waning.cmax_wa_1 = 1;
  273. if(data->m_data.m_r.r_data.out_power.consumer > data->m_data.m_rw.rw_data.md_eep.output_th.consumer_max_2)
  274. {
  275. data->m_data.m_r.r_data.output_waning.out_waning.cmax_wa_2 = 1;
  276. }
  277. }else
  278. {
  279. data->o_beep.o_t.o_c_max = 0;
  280. data->o_beep_flag.o_t.o_c_max = 0;
  281. data->m_data.m_r.r_data.output_waning.out_waning.cmax_wa_1 = 0;
  282. data->m_data.m_r.r_data.output_waning.out_waning.cmax_wa_2 = 0;
  283. }
  284. }
  285. }
  286. }
  287. static void check_freq_max(uint8_t channel)
  288. {
  289. sts_data_t *data = get_sts();
  290. if(channel != CH448_CHANNEL_1)
  291. {
  292. uint8_t chn = channel -1;
  293. if(chn > CH448_CHANNEL_3)
  294. return;
  295. if(data->input_wanning_en[chn].freqmax_en) {
  296. if(data->m_data.m_r.r_data.input[chn].freq > data->m_data.m_rw.rw_data.md_eep.input_th[chn].freq_max_1)
  297. {
  298. if(!data->i_beep[chn].i_t.i_hz_max)
  299. {
  300. beep_timer_start(20,300);
  301. data->i_beep[chn].i_t.i_hz_max =1;
  302. data->i_beep_flag[chn].i_t.i_hz_max =1;
  303. data->beep_count = data->wanning_count;
  304. }
  305. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmax_wa_1 = 1;
  306. if(data->m_data.m_r.r_data.input[chn].freq > data->m_data.m_rw.rw_data.md_eep.input_th[chn].freq_max_2)
  307. {
  308. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmax_wa_2 = 1;
  309. }
  310. }else
  311. {
  312. data->i_beep[chn].i_t.i_hz_max =0;
  313. data->i_beep_flag[chn].i_t.i_hz_max =0;
  314. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmax_wa_1 = 0;
  315. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmax_wa_2 = 0;
  316. }
  317. }
  318. }
  319. }
  320. static void check_freq_min(uint8_t channel)
  321. {
  322. sts_data_t *data = get_sts();
  323. if(channel != CH448_CHANNEL_1)
  324. {
  325. uint8_t chn = channel - 1;
  326. if(chn > CH448_CHANNEL_3)
  327. return;
  328. if(data->input_wanning_en[chn].freqmin_en) {
  329. if(data->m_data.m_r.r_data.input[chn].freq < data->m_data.m_rw.rw_data.md_eep.input_th[chn].freq_min_1)
  330. {
  331. if(!data->i_beep[chn].i_t.i_hz_min)
  332. {
  333. beep_timer_start(20,300);
  334. data->i_beep[chn].i_t.i_hz_min =1;
  335. data->i_beep_flag[chn].i_t.i_hz_min =1;
  336. data->beep_count = data->wanning_count;
  337. }
  338. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmin_wa_1 = 1;
  339. if(data->m_data.m_r.r_data.input[chn].freq < data->m_data.m_rw.rw_data.md_eep.input_th[chn].freq_min_2)
  340. {
  341. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmin_wa_2 = 1;
  342. }
  343. }else
  344. {
  345. data->i_beep[chn].i_t.i_hz_min =0;
  346. data->i_beep_flag[chn].i_t.i_hz_min =0;
  347. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmin_wa_1 = 0;
  348. data->m_data.m_r.r_data.input_wanning.in_wan[chn].hzmin_wa_2 = 0;
  349. }
  350. }
  351. }
  352. }
  353. static void check_wanning(uint8_t channel)
  354. {
  355. check_voltage_max(channel);
  356. check_voltage_min(channel);
  357. check_current_max(channel);
  358. check_power_max(channel);
  359. check_consumer_max(channel);
  360. check_freq_max(channel);
  361. check_freq_min(channel);
  362. }