usr_lysis.c 11 KB

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  1. /*
  2. * usr_gpio.c
  3. *
  4. * Created on: 2022年4月11日
  5. * Author: amos
  6. */
  7. #include "onechip_include_header.h"
  8. extern uint32_t conter100ms;
  9. extern uint32_t conter10ms;
  10. #define MIN_TEMPERATUARE 5
  11. #define MAX_TEMPERATUARE 120
  12. #define COOL_WORK_THD 5
  13. #define HEAT_WORK_THD 2.5
  14. #define COOL_TEST_TIME 30
  15. #define HEAT_TEST_TIME 6000
  16. #define COOL_TEST_PWR -50
  17. #define HEAT_TEST_PWR 50
  18. #define THERM_ADC_CHN 5
  19. #define OVER_HEAT_EDGE 0.5
  20. #define HEAT_STABLE_TIME 300
  21. #define MAX_REMOVE_GAP 100
  22. #define EER_NOEXIST_TIME_GAP 500
  23. #define HEAT_ARRIVE_EDGE 0.5
  24. #define GOTO_IDLE_GAP 3000
  25. typedef enum Heat_state {
  26. PID_IDLE,
  27. PID_OVERHEAT,
  28. PID_OVERHEATLAST,
  29. PID_OVERCOOL,
  30. PID_OVERCOOLLAST,
  31. PID_ADJ,
  32. PID_STAB,
  33. PID_ERROR,
  34. } pid_state_def;
  35. typedef enum {
  36. THERMOSTAT_NOR, // 正常
  37. THERMOSTAT_COOL_EER, //制冷坏
  38. THERMOSTAT_HEAT_EER, // 加热坏
  39. THERMOSTAT_SENSER_EER, // 传感器坏
  40. THERMOSTAT_TUBEEXIST_EER, //存在试管
  41. THERMOSTAT_TUBENOEXIST_EER, //不存在试管
  42. } THERMOSTAT_ERR_State;
  43. typedef enum THERMO_state {
  44. THERMOSTAT_PWRON,
  45. THERMOSTAT_CHECK,
  46. THERMOSTAT_WARM,
  47. THERMOSTAT_IDLE,
  48. THERMOSTAT_INSERT,
  49. THERMOSTAT_NOTICE,
  50. THERMOSTAT_WORK,
  51. THERMOSTAT_END,
  52. THERMOSTAT_ERROR,
  53. } thermostat_state_def;
  54. typedef struct
  55. {
  56. float realtemp;
  57. float goal;
  58. float offset;
  59. float overHeat;
  60. float overHeatTime;
  61. float overCool;
  62. float overCoolTime;
  63. float idletemp;
  64. float worktime;
  65. float err;
  66. float err_last;
  67. float Kp,Ki,Kd;
  68. float variate;
  69. float integral;
  70. float cabinTem;
  71. pid_state_def pid_st;
  72. unsigned int pid_stable;
  73. unsigned int pid_stable_time;
  74. thermostat_state_def thermostat_st;
  75. THERMOSTAT_ERR_State eerst;
  76. }PID_def;
  77. int32_t tupeExist = 0;
  78. int32_t ylsis_stFistin;
  79. PID_def therm;
  80. extern void light_band_set(uint8_t mode_select, uint16_t speed_ms, uint32_t rgb_color);
  81. volatile uint32_t g_u32AdcIntFlag; //adc simple finish flag
  82. int32_t recGoalFlag = 0;
  83. uint32_t Read_Tupe(void) {
  84. return (HAL_GPIO_ReadPin(MINI7_V2_TUBE_SW_GPIO_Port,MINI7_V2_TUBE_SW_Pin)) ? 1 : 0; // 检查PF5引脚值
  85. }
  86. /**
  87. * @brief SetMotorPwm
  88. *
  89. * @param value between 0-100
  90. *
  91. * @return None
  92. *
  93. * @details
  94. */
  95. void SetThermPwm( int32_t value) {
  96. /* Start PWM counter */
  97. }
  98. void updatParm_therm(void) {
  99. therm.offset = sysinf.lysis_offset;
  100. therm.overHeat = sysinf.lysis_overHeat;
  101. therm.overHeatTime = sysinf.lysis_overHeatTime;
  102. therm.Kp = sysinf.lysis_Kp;
  103. therm.Ki = sysinf.lysis_Ki ;
  104. therm.Kd = sysinf.lysis_Kd;
  105. }
  106. void NTCGetVoltage(float *ActualTemp)
  107. {
  108. int32_t i32ConversionData;
  109. float NTCVoltage;
  110. float Rt=0; //NTC电阻
  111. float R=10000; //10K固定阻值电阻
  112. float T0=273.15+25; //转换为开尔文温度
  113. //float B=3950; //B值 25°
  114. float B=3980; //B值 >50°
  115. float Ka=273.15; //K值
  116. float temp;
  117. float VR=0; //电压值
  118. /* Get the conversion result */
  119. // i32ConversionData = ADC_GET_CONVERSION_DATA(ADC, THERM_ADC_CHN);
  120. NTCVoltage=(i32ConversionData*3300/4096);
  121. VR=NTCVoltage/1000.00;
  122. Rt=8.05664*i32ConversionData;
  123. temp=1/(1/T0+log(Rt/R)/B)-Ka+0.3; //计算温度
  124. *ActualTemp=temp;
  125. }
  126. float PIDRealize(PID_def *pid)
  127. {
  128. pid->err=pid->goal-pid->realtemp;
  129. pid->variate=pid->Kp*pid->err+pid->Ki*pid->integral+pid->Kd*(pid->err-pid->err_last);
  130. pid->err_last=pid->err;
  131. if(pid->variate>100)
  132. {
  133. pid->variate=100;
  134. }else{
  135. pid->integral+=pid->err;
  136. }
  137. if(pid->variate<0)
  138. {
  139. pid->variate=0;
  140. }
  141. return pid->variate;
  142. }
  143. /**
  144. * @brief Motor_Init
  145. *
  146. * @param init key and optic input
  147. *
  148. * @return 0正常,1不能加热,2,不能制冷,3 传感器异常
  149. *
  150. * @details 上电,通过设置加热制冷,判断温度变化。
  151. */
  152. uint32_t Therm_Check(void) {
  153. float firstTemp,heattemp;
  154. NTCGetVoltage(&firstTemp);
  155. if(firstTemp < MIN_TEMPERATUARE || firstTemp > MAX_TEMPERATUARE){
  156. SetThermPwm(0);
  157. return THERMOSTAT_SENSER_EER;
  158. }
  159. SetThermPwm(HEAT_TEST_PWR);
  160. HAL_Delay(HEAT_TEST_TIME);
  161. NTCGetVoltage(&heattemp);
  162. SetThermPwm(0);
  163. if((heattemp - firstTemp) < HEAT_WORK_THD){
  164. return THERMOSTAT_HEAT_EER;
  165. }
  166. return THERMOSTAT_NOR;
  167. }
  168. /**
  169. * @brief Set_therm
  170. *
  171. * @param goal 目标温度
  172. *
  173. * @return 无
  174. *
  175. * @details 设置目标温度。
  176. */
  177. void Set_therm(float goal) {
  178. therm.goal = goal;
  179. if(goal > (therm.overHeat + therm.realtemp )){
  180. therm.pid_st = PID_OVERHEAT;
  181. therm.goal += therm.overHeat;
  182. }else{
  183. therm.pid_st = PID_ADJ;
  184. }
  185. therm.integral = 0;
  186. therm.pid_stable = 0;
  187. }
  188. void Close_therm(float goal) {
  189. therm.pid_st = PID_IDLE;
  190. therm.integral = 0;
  191. therm.pid_stable = 0;
  192. SetThermPwm(0);
  193. }
  194. /**
  195. * @brief Therm_work
  196. *
  197. * @param adjflag 调节标记
  198. *
  199. *
  200. *
  201. * @details 温控器调节。
  202. */
  203. uint32_t Pid_work(void) {
  204. static uint32_t chrConter = 0;
  205. float temp;
  206. PID_def *ptherm = &therm;
  207. NTCGetVoltage(&temp);
  208. ptherm->realtemp = temp + ptherm->offset;
  209. switch(ptherm->pid_st){
  210. case PID_OVERHEAT:{
  211. PIDRealize(ptherm);
  212. if (ptherm->realtemp > (ptherm->goal - OVER_HEAT_EDGE)){
  213. ptherm->pid_st = PID_OVERHEATLAST;
  214. chrConter = 0;
  215. }
  216. }break;
  217. case PID_OVERHEATLAST:{
  218. chrConter ++;
  219. if (chrConter > ptherm->overHeatTime){
  220. ptherm->pid_st = PID_ADJ;
  221. /*PID功率值维持不变*/
  222. ptherm->integral = (ptherm->overHeat*ptherm->Kp)/ptherm->Ki;
  223. ptherm->integral += (ptherm->variate)/ptherm->Ki;
  224. therm.goal -= therm.overHeat;
  225. chrConter = 0;
  226. }
  227. }break;
  228. case PID_ADJ:{
  229. PIDRealize(ptherm);
  230. if ((ptherm->realtemp > (ptherm->goal - OVER_HEAT_EDGE)) && (ptherm->realtemp < (ptherm->goal + OVER_HEAT_EDGE))){
  231. if(chrConter < HEAT_STABLE_TIME){
  232. chrConter ++;
  233. }
  234. else{
  235. /*上报加热稳定*/
  236. ptherm->pid_stable = 1;
  237. }
  238. }else{
  239. if(chrConter){chrConter--;}
  240. else{ptherm->pid_stable = 0;}
  241. }
  242. }break;
  243. default:
  244. ptherm->pid_st = PID_IDLE;
  245. ptherm->variate = 0;
  246. break;
  247. }
  248. SetThermPwm(ptherm->variate);
  249. // char data[20];
  250. // *(int *)(data+0) = ptherm->thermostat_st;
  251. // *(float *)(data+4) = ptherm->realtemp;
  252. // *(float *)(data+8) = ptherm->variate;
  253. // *(float *)(data+12) = ptherm->integral;
  254. // *(float *)(data+16) = ptherm->err;
  255. // b2b_send_to_pc(PC_CMD_DATASCOPE, data, sizeof(data));
  256. return 0;
  257. }
  258. uint32_t Therm_updat_work(void) {
  259. PID_def *ptherm = &therm;
  260. char data[20];
  261. *(int *)(data+0) = (ptherm->pid_st + (ptherm->thermostat_st << 8));
  262. *(float *)(data+4) = ptherm->realtemp;
  263. *(float *)(data+8) = ptherm->variate;
  264. *(float *)(data+12) = ptherm->integral;
  265. *(float *)(data+16) = ptherm->err;
  266. // b2b_send_device(B2B_CMD_DATASCOPE, data, sizeof(data),0);
  267. return 0;
  268. }
  269. uint32_t Therm_work(void) {
  270. float temp;
  271. static uint32_t last10ms;
  272. PID_def *ptherm = &therm;
  273. NTCGetVoltage(&temp);
  274. ptherm->realtemp = temp + ptherm->offset;
  275. switch(ptherm->thermostat_st){
  276. case THERMOSTAT_PWRON:{
  277. static float firstTemp;
  278. if(ylsis_stFistin){
  279. ylsis_stFistin = false;
  280. sysinf.lysisState = SYS_STATE_PREPARE;
  281. NTCGetVoltage(&firstTemp);
  282. if(firstTemp < MIN_TEMPERATUARE || firstTemp > MAX_TEMPERATUARE){
  283. error_set(ERROR_TEMPSENSOR_EER);
  284. ptherm->thermostat_st = THERMOSTAT_ERROR;
  285. ylsis_stFistin = true;
  286. }else{
  287. Set_therm(firstTemp+30);
  288. last10ms = conter10ms;
  289. }
  290. }else{
  291. float heattemp;
  292. NTCGetVoltage(&heattemp);
  293. if((heattemp - firstTemp) > HEAT_WORK_THD){
  294. ptherm->thermostat_st = THERMOSTAT_WARM;
  295. ylsis_stFistin = true;
  296. ptherm->pid_st = PID_IDLE;
  297. }
  298. if((conter10ms-last10ms)> HEAT_TEST_TIME){
  299. /*超时判断*/
  300. ptherm->thermostat_st = THERMOSTAT_ERROR;
  301. sysinf.lysisState = SYS_STATE_ERROR_HW;
  302. error_set(ERROR_HEATFUC_EER);
  303. ylsis_stFistin = true;
  304. }
  305. }
  306. }break;
  307. case THERMOSTAT_NOTICE:{
  308. if(ylsis_stFistin){
  309. /*上电或者预热状态存在管管,停止加热*/
  310. sysinf.lysisState = SYS_STATE_ERROR_HW;
  311. error_set(ERROR_TUPE_EXIST);
  312. Set_therm( 0);
  313. ylsis_stFistin = false;
  314. }else{
  315. if(Read_Tupe() == 0){
  316. /*管管移除,进入到预热状态*/
  317. ptherm->thermostat_st = THERMOSTAT_WARM;
  318. error_clear();
  319. ylsis_stFistin = true;
  320. }
  321. }
  322. }break;
  323. case THERMOSTAT_WARM:{
  324. if(ylsis_stFistin){
  325. sysinf.lysisState = SYS_STATE_PREPARE;
  326. ylsis_stFistin = false;
  327. if(ptherm->idletemp < 0.1){
  328. /*预热参数配置为0,无需要预热*/
  329. ptherm->thermostat_st = THERMOSTAT_IDLE;
  330. ylsis_stFistin = true;
  331. }else{
  332. Set_therm(ptherm->idletemp);
  333. }
  334. }else{
  335. /*预热到位,进入空闲状态*/
  336. if(ptherm->realtemp > (ptherm->idletemp - HEAT_ARRIVE_EDGE)){
  337. ptherm->thermostat_st = THERMOSTAT_IDLE;
  338. ylsis_stFistin = true;
  339. }
  340. // if(Read_Tupe()){
  341. // /*预热插管管,进入提示状态*/
  342. // ptherm->thermostat_st = THERMOSTAT_NOTICE;
  343. // ylsis_stFistin = TRUE;
  344. // }
  345. }
  346. }break;
  347. case THERMOSTAT_IDLE:{
  348. if(ylsis_stFistin){
  349. sysinf.lysisState = SYS_STATE_READY;
  350. ylsis_stFistin = false;
  351. Close_therm(0);
  352. recGoalFlag = 0;
  353. }else{
  354. if(recGoalFlag){
  355. Set_therm(ptherm->goal);
  356. recGoalFlag = 0;
  357. }
  358. if(ptherm->pid_stable){
  359. ptherm->thermostat_st = THERMOSTAT_INSERT;
  360. ylsis_stFistin = true;
  361. }
  362. // if(Read_Tupe()){
  363. // /*预热插管管,进入提示状态*/
  364. // ptherm->thermostat_st = THERMOSTAT_NOTICE;
  365. // ylsis_stFistin = TRUE;
  366. // }
  367. }
  368. }break;
  369. case THERMOSTAT_INSERT:{
  370. if(ylsis_stFistin){
  371. sysinf.lysisState = SYS_STATE_CHECK;
  372. ylsis_stFistin = false;
  373. }else{
  374. if(Read_Tupe()){
  375. ptherm->thermostat_st = THERMOSTAT_WORK;
  376. ylsis_stFistin = true;
  377. }
  378. }
  379. }break;
  380. case THERMOSTAT_WORK:{
  381. if(ylsis_stFistin){
  382. sysinf.lysisState = SYS_STATE_RUNING;
  383. ylsis_stFistin = false;
  384. ptherm->pid_stable_time = 0;
  385. }else{
  386. // if(Read_Tupe()){
  387. // last10ms = conter10ms;
  388. // }else{
  389. // if((conter10ms-last10ms)> MAX_REMOVE_GAP){
  390. // Close_therm(0);
  391. // ptherm->eerst = THERMOSTAT_TUBENOEXIST_EER;
  392. // ptherm->thermostat_st = THERMOSTAT_ERROR;
  393. // error_set(ERROR_TUPE_MOVE);
  394. // last10ms = conter10ms;
  395. // ylsis_stFistin = TRUE;
  396. // }
  397. // }
  398. // if(ptherm->pid_stable)
  399. {
  400. ptherm->pid_stable_time ++;
  401. if(ptherm->pid_stable_time > ptherm->worktime){
  402. ptherm->thermostat_st = THERMOSTAT_END;
  403. ylsis_stFistin = true;
  404. }
  405. }
  406. }
  407. }break;
  408. case THERMOSTAT_END:{
  409. if(ylsis_stFistin){
  410. sysinf.lysisState = SYS_STATE_WORKEND;
  411. ylsis_stFistin = false;
  412. Close_therm(0);
  413. last10ms = conter10ms;
  414. }else{
  415. if((conter10ms-last10ms)> GOTO_IDLE_GAP){
  416. // if(Read_Tupe() == 0){
  417. /*管管移除,进入到预热状态*/
  418. ptherm->thermostat_st = THERMOSTAT_WARM;
  419. ylsis_stFistin = true;
  420. }
  421. }
  422. }break;
  423. case THERMOSTAT_ERROR:{
  424. if(ylsis_stFistin){
  425. ylsis_stFistin = false;
  426. Close_therm(0);
  427. }else{
  428. if(ptherm->eerst == THERMOSTAT_TUBENOEXIST_EER){
  429. if((conter10ms-last10ms)> EER_NOEXIST_TIME_GAP){
  430. ptherm->thermostat_st = THERMOSTAT_IDLE;
  431. error_clear();
  432. ylsis_stFistin = true;
  433. }
  434. }
  435. }
  436. }break;
  437. }
  438. Pid_work();
  439. return 0;
  440. }
  441. uint32_t Close_Therm_work(void) {
  442. PID_def *ptherm = &therm;
  443. ptherm->thermostat_st = THERMOSTAT_END;
  444. ylsis_stFistin = true;
  445. return 0;
  446. }