commands.c 9.6 KB

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  1. #include "os/os_task.h"
  2. #include "os/queue.h"
  3. #include "libs/logger.h"
  4. #include "libs/utils.h"
  5. #include "prot/can_message.h"
  6. #include "bsp/bsp.h"
  7. #include "bsp/pwm.h"
  8. #include "bsp/adc.h"
  9. #include "foc/motor/motor.h"
  10. #include "foc/commands.h"
  11. #include "prot/can_foc_msg.h"
  12. #include "app/nv_storage.h"
  13. #ifdef CONFIG_DQ_STEP_RESPONSE
  14. extern float target_d;
  15. extern float target_q;
  16. #endif
  17. static u32 foc_command_task(void *args);
  18. static void process_foc_command(foc_cmd_body_t *command);
  19. static co_queue_t _cmd_queue;
  20. void foc_command_init(void) {
  21. _cmd_queue = queue_create(16, sizeof(foc_cmd_body_t));
  22. shark_task_create(foc_command_task, NULL);
  23. }
  24. bool foc_send_command(foc_cmd_body_t *command) {
  25. if (!queue_put(_cmd_queue, command)) {
  26. if (command->data) {
  27. os_free(command->data);
  28. }
  29. return false;
  30. }
  31. return true;
  32. }
  33. static u32 foc_command_task(void *args) {
  34. foc_cmd_body_t command;
  35. if (queue_get(_cmd_queue, &command)) {
  36. process_foc_command(&command);
  37. if (command.data) {
  38. os_free(command.data);
  39. }
  40. }
  41. return 0;
  42. }
  43. u8 ext_gear = 0;
  44. static void process_ext_command(foc_cmd_body_t *command) {
  45. if (command->ext_key == 0x1A01) {
  46. return;
  47. }else if (command->ext_key == 0x1A02) {
  48. u8 b0 = decode_u8(command->data);
  49. u8 p_mode = decode_8bits(b0, 0, 1);
  50. if (p_mode == 1) {
  51. mc_start(CTRL_MODE_TRQ);
  52. }else if (p_mode == 2) {
  53. mc_stop();
  54. }
  55. ext_gear = decode_8bits(b0, 5, 7);
  56. u8 b1 = decode_u8((u8 *)command->data + 1);
  57. u8 cruise = decode_8bits(b1, 0, 1);
  58. if (cruise == 2) {
  59. PMSM_FOC_EnableCruise(true);
  60. }else if (cruise == 1) {
  61. PMSM_FOC_EnableCruise(false);
  62. }
  63. u8 epm = decode_8bits(b1, 2, 3);
  64. if (epm == 1) {
  65. mc_start_epm(true);
  66. }else if(epm == 2) {
  67. mc_start_epm(false);
  68. }
  69. u8 m_4896 = decode_8bits(b1, 4, 5);
  70. u8 epm_dir = decode_8bits(b1, 6, 7);
  71. if (epm_dir == 0) {
  72. mc_start_epm_move(EPM_Dir_None, true);
  73. }else if (epm_dir == 1) {
  74. mc_start_epm_move(EPM_Dir_Back, true);
  75. }else if (epm_dir == 2) {
  76. mc_start_epm_move(EPM_Dir_Forward, true);
  77. }
  78. u8 response[8] = {0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF};
  79. response[0] &= 0xFC;
  80. response[0] |= (mc_is_start()?1:2);
  81. response[0] |= (ext_gear << 5);
  82. response[1] &= 0xC0;
  83. response[1] |= (PMSM_FOC_Is_CruiseEnabled()?2:1);
  84. response[1] |= (mc_is_epm()?1:2) << 2;
  85. response[1] |= m_4896<<4;
  86. shark_can0_send_ext_message(0x1A024D43, response, sizeof(response));
  87. }else if (command->ext_key == 0x1A05) {
  88. shark_can0_send_ext_message(0x1A054D43, command->data, command->len);
  89. }
  90. }
  91. static void process_foc_command(foc_cmd_body_t *command) {
  92. u8 erroCode = 0;
  93. u8 response[32];
  94. int len = 3;
  95. if ((command->ext_key != 0) && (command->cmd == 0)) {
  96. process_ext_command(command);
  97. return;
  98. }
  99. switch (command->cmd) {
  100. case Foc_Start_Motor:
  101. {
  102. bool success;
  103. foc_start_cmd_t *scmd = (foc_start_cmd_t *)command->data;
  104. sys_debug("start cmd %d\n", scmd->start_stop);
  105. if (scmd->start_stop == Foc_Start) {
  106. success = mc_start(CTRL_MODE_TRQ);
  107. }else if (scmd->start_stop == Foc_Stop) {
  108. success = mc_stop();
  109. }
  110. if (!success) {
  111. erroCode = PMSM_FOC_GetErrCode();
  112. }
  113. sys_debug("start motor %d\n", erroCode);
  114. break;
  115. }
  116. case Foc_Set_Cruise_Mode:
  117. {
  118. u8 enable = decode_u8(command->data);
  119. if (!PMSM_FOC_EnableCruise(enable)) {
  120. erroCode = PMSM_FOC_GetErrCode();
  121. }
  122. break;
  123. }
  124. case Foc_Set_Cruise_Speed:
  125. {
  126. u8 mode = decode_u8(command->data);
  127. float rpm = (float)decode_s16((u8 *)command->data + 1);
  128. if (mode == 0) {
  129. rpm = PMSM_FOC_GetSpeed() + rpm;
  130. }
  131. if (!PMSM_FOC_Set_CruiseSpeed(rpm)) {
  132. erroCode = PMSM_FOC_GetErrCode();
  133. }
  134. sys_debug("Cruise RPM %d\n", (int)rpm);
  135. encode_u16(response + 3, (s16)rpm);
  136. len += 2;
  137. break;
  138. }
  139. case Foc_Set_Ctrl_Mode:
  140. {
  141. u8 mode = decode_u8(command->data);
  142. sys_debug("mode = %d\n", mode);
  143. if (!mc_set_foc_mode(mode)) {
  144. erroCode = PMSM_FOC_GetErrCode();
  145. }
  146. response[len++] = PMSM_FOC_GetCtrlMode();
  147. break;
  148. }
  149. case Foc_Set_Gear_Limit:
  150. {
  151. if (command->len < 5) {
  152. erroCode = FOC_Param_Err;
  153. }else {
  154. u16 maxRPM = decode_u16(command->data);
  155. u16 maxPhaseCurr = decode_u8((u8 *)command->data + 2);
  156. u8 maxiDC = decode_u8((u8 *)command->data + 4);
  157. PMSM_FOC_SpeedLimit((float)maxRPM);
  158. PMSM_FOC_PhaseCurrLim((float)maxPhaseCurr);
  159. PMSM_FOC_DCCurrLimit((float)maxiDC);
  160. mc_need_update();//重新获取转把相电流和速度
  161. encode_u16(response + 3, (u16)PMSM_FOC_GetSpeedLimit());
  162. encode_u16(response + 5, (u16)PMSM_FOC_GetPhaseCurrLim());
  163. encode_u8(response + 7, (u8)PMSM_FOC_GetDCCurrLimit());
  164. len += 5;
  165. }
  166. break;
  167. }
  168. case Foc_Set_Speed_Limit:
  169. {
  170. s16 speed = decode_s16(((u8 *)command->data));
  171. PMSM_FOC_SpeedLimit(speed);
  172. encode_u16(response + 3, (u16)PMSM_FOC_GetSpeedLimit());
  173. len += 2;
  174. break;
  175. }
  176. case Foc_Set_iDC_Limit:
  177. {
  178. u8 current = decode_u8(((u8 *)command->data));
  179. PMSM_FOC_DCCurrLimit((float)current);
  180. encode_u8(response + 3, (u8)PMSM_FOC_GetDCCurrLimit());
  181. len += 1;
  182. break;
  183. }
  184. case Foc_Set_Phase_CurrLim:
  185. {
  186. s16 curr = decode_s16(((u8 *)command->data));
  187. PMSM_FOC_PhaseCurrLim((float)curr);
  188. encode_u16(response + 3, (u16)PMSM_FOC_GetPhaseCurrLim());
  189. len += 2;
  190. break;
  191. }
  192. case Foc_Cali_Hall_Phase:
  193. {
  194. s16 vd = decode_s16((u8 *)command->data);
  195. sys_debug("cali encoder %d\n", vd);
  196. mc_encoder_off_calibrate((vd));
  197. break;
  198. }
  199. case Foc_Set_Open_Dq_Vol:
  200. {
  201. s16 vd = decode_s16(((u8 *)command->data));
  202. s16 vq = decode_s16(((u8 *)command->data) + 2);
  203. sys_debug("set v_q %d, %d\n", vd, vq);
  204. PMSM_FOC_SetOpenVdq(vd, (vq));
  205. break;
  206. }
  207. case Foc_Conf_Pid:
  208. {
  209. pid_conf_t pid;
  210. u8 id = decode_u8((u8 *)command->data);
  211. memcpy((char *)&pid, (char *)command->data + 1, sizeof(pid_conf_t));
  212. sys_debug("id = %d, kp = %f, ki = %f, kb = %f\n", id, pid.kp, pid.ki, pid.kb);
  213. PMSM_FOC_SetPid(id, pid.kp, pid.ki, pid.kb);
  214. nv_set_pid(id, &pid);
  215. break;
  216. }
  217. case Foc_Set_EPM_Mode:
  218. {
  219. bool mode = decode_u8((u8 *)command->data) == 0?false:true;
  220. if (!mc_start_epm(mode)) {
  221. erroCode = PMSM_FOC_GetErrCode();
  222. }
  223. break;
  224. }
  225. case Foc_Lock_Motor:
  226. {
  227. u8 lock = decode_u8((u8 *)command->data);
  228. if (lock == Foc_Start) {
  229. mc_lock_motor(true);
  230. }else {
  231. mc_lock_motor(false);
  232. }
  233. erroCode = PMSM_FOC_GetErrCode();
  234. break;
  235. }
  236. case Foc_Auto_Hold:
  237. {
  238. u8 hold = decode_u8((u8 *)command->data);
  239. if (hold == Foc_Start) {
  240. mc_auto_hold(true);
  241. }else {
  242. mc_auto_hold(false);
  243. }
  244. erroCode = PMSM_FOC_GetErrCode();
  245. break;
  246. }
  247. case Foc_Start_EPM_Move:
  248. {
  249. EPM_Dir_t dir = (EPM_Dir_t)decode_u8((u8 *)command->data);
  250. if(!mc_command_epm_move(dir)) {
  251. erroCode = PMSM_FOC_GetErrCode();
  252. }
  253. break;
  254. }
  255. case Foc_Start_DQ_Calibrate:
  256. {
  257. u8 start = decode_u8((u8 *)command->data);
  258. if (start == Foc_Start) {
  259. sys_debug("start mpta cali\n");
  260. mc_set_foc_mode(CTRL_MODE_CURRENT);
  261. PMSM_FOC_MTPA_Calibrate(true);
  262. }else {
  263. PMSM_FOC_MTPA_Calibrate(false);
  264. mc_set_foc_mode(CTRL_MODE_TRQ);
  265. }
  266. break;
  267. }
  268. case Foc_Set_IS_Curr_Angle:
  269. {
  270. if (command->len != 4) {
  271. erroCode = FOC_Param_Err;
  272. }else {
  273. s16 is_curr = decode_s16((u8 *)command->data);
  274. s16 is_angle = decode_s16((u8 *)command->data + 2);
  275. sys_debug("curr %d, angle %d\n", is_curr, is_angle);
  276. PMSM_FOC_Set_Current(is_curr);
  277. PMSM_FOC_Set_Angle(is_angle);
  278. }
  279. break;
  280. }
  281. case Foc_Set_Plot_Type:
  282. {
  283. u8 plot = decode_u8((u8 *)command->data);
  284. if (plot >= Plot_t_Max) {
  285. erroCode = FOC_Param_Err;
  286. }else {
  287. PMSM_FOC_Set_PlotType((Plot_t)plot);
  288. }
  289. break;
  290. }
  291. case Foc_Set_Throttle_throld:
  292. {
  293. if (mc_is_start()) {
  294. erroCode = FOC_NotAllowed;
  295. }else {
  296. u16 min = decode_u16((u8 *)command->data);
  297. u16 max = decode_u16((u8 *)command->data + 2);
  298. nv_get_foc_params()->n_minThroVol = (float)min/100.0f;
  299. nv_get_foc_params()->n_maxThroVol = (float)max/100.0f;
  300. nv_save_foc_params();
  301. }
  302. break;
  303. }
  304. case Foc_Get_Config:
  305. {
  306. len = sizeof(foc_params_t) + 2 - sizeof(pid_conf_t) * PID_Max_id - 2;
  307. u8 *config = os_alloc(len);
  308. if (config == NULL) {
  309. erroCode = FOC_MEM_Err;
  310. break;
  311. }
  312. memcpy((void *)(config + 2), (void *)nv_get_foc_params(), sizeof(foc_params_t) - sizeof(pid_conf_t) * PID_Max_id - 2);
  313. config[0] = command->cmd;
  314. config[1] = CAN_MY_ADDRESS;
  315. can_send_response(command->can_src, config, len);
  316. os_free(config);
  317. return;
  318. }
  319. case Foc_Set_Config:
  320. {
  321. if (mc_is_start()) {
  322. erroCode = FOC_NotAllowed;
  323. }else if (command->len < 19) {
  324. erroCode = FOC_Param_Err;
  325. }else {
  326. nv_get_foc_params()->s_PhaseCurrLim = decode_s16((u8 *)command->data);
  327. nv_get_foc_params()->s_maxRPM = decode_s16((u8 *)command->data + 2);
  328. nv_get_foc_params()->s_PhaseCurreBrkLim = decode_s16((u8 *)command->data + 4);
  329. nv_get_foc_params()->s_iDCeBrkLim = decode_s16((u8 *)command->data + 6);
  330. nv_get_foc_params()->s_LimitiDC = decode_s16((u8 *)command->data + 8);
  331. nv_get_foc_params()->n_minThroVol = (float)decode_s16((u8 *)command->data + 10)/100.0f;
  332. nv_get_foc_params()->n_maxThroVol = (float)decode_s16((u8 *)command->data + 12)/100.0f;
  333. nv_get_foc_params()->s_maxEpmRPM = decode_s16((u8 *)command->data + 14);
  334. nv_get_foc_params()->s_maxEpmPhaseCurrLim = decode_s16((u8 *)command->data + 16);
  335. nv_get_foc_params()->n_brkShutPower = decode_s16((u8 *)command->data + 18);
  336. nv_save_foc_params();
  337. }
  338. break;
  339. }
  340. case Foc_Set_eBrake_Throld:
  341. {
  342. break;
  343. }
  344. default:
  345. {
  346. erroCode = FOC_Unknow_Cmd;
  347. break;
  348. }
  349. }
  350. sys_debug("err = %d\n", erroCode);
  351. response[0] = command->cmd;
  352. response[1] = CAN_MY_ADDRESS;
  353. response[2] = erroCode;
  354. can_send_response(command->can_src, response, len);
  355. }