Module_PrimaryComm.c 21 KB

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  1. #include <sys/time.h>
  2. #include <sys/timeb.h>
  3. #include <sys/types.h>
  4. #include <sys/stat.h>
  5. #include <sys/types.h>
  6. #include <sys/ioctl.h>
  7. #include <sys/socket.h>
  8. #include <sys/ipc.h>
  9. #include <sys/shm.h>
  10. #include <sys/shm.h>
  11. #include <sys/mman.h>
  12. #include <linux/wireless.h>
  13. #include <arpa/inet.h>
  14. #include <netinet/in.h>
  15. #include <stdbool.h>
  16. #include <unistd.h>
  17. #include <stdarg.h>
  18. #include <stdio.h> /*標準輸入輸出定義*/
  19. #include <stdlib.h> /*標準函數庫定義*/
  20. #include <unistd.h> /*Unix 標準函數定義*/
  21. #include <fcntl.h> /*檔控制定義*/
  22. #include <termios.h> /*PPSIX 終端控制定義*/
  23. #include <errno.h> /*錯誤號定義*/
  24. #include <errno.h>
  25. #include <string.h>
  26. #include <time.h>
  27. #include <ctype.h>
  28. #include <ifaddrs.h>
  29. #include <math.h>
  30. #include "../Log/log.h"
  31. #include "../Define/define.h"
  32. #include "../Config.h"
  33. #include "../ShareMemory/shmMem.h"
  34. #include "PrimaryComm.h"
  35. #include "Module_PrimaryComm.h"
  36. //------------------------------------------------------------------------------
  37. //struct SysConfigAndInfo *ShmSysConfigAndInfo;
  38. //struct StatusCodeData *ShmStatusCodeData;
  39. static struct SysConfigData *pSysConfig = NULL;
  40. static struct SysInfoData *pSysInfo = NULL;
  41. static struct AlarmCodeData *pAlarmCode = NULL;
  42. static struct FaultCodeData *pFaultCode = NULL;
  43. static struct PrimaryMcuData *ShmPrimaryMcuData;
  44. const char *priPortName = "/dev/ttyS1";
  45. uint8_t gun_count; //DS60-120 add
  46. uint8_t EmgBtn_count = 0;
  47. uint8_t Door_count = 0;
  48. uint8_t EmgBtn_flag = 0;
  49. uint8_t Door_flag = 0;
  50. //struct ChargingInfoData *ChargingData[CHAdeMO_QUANTITY + CCS_QUANTITY + GB_QUANTITY];
  51. //------------------------------------------------------------------------------
  52. /*int StoreLogMsg(const char *fmt, ...)
  53. {
  54. char Buf[4096 + 256];
  55. char buffer[4096];
  56. va_list args;
  57. struct timeb SeqEndTime;
  58. struct tm *tm;
  59. va_start(args, fmt);
  60. int rc = vsnprintf(buffer, sizeof(buffer), fmt, args);
  61. va_end(args);
  62. memset(Buf, 0, sizeof(Buf));
  63. ftime(&SeqEndTime);
  64. SeqEndTime.time = time(NULL);
  65. tm = localtime(&SeqEndTime.time);
  66. if (pSysConfig->SwitchDebugFlag == YES) {
  67. sprintf(Buf, "%02d:%02d:%02d:%03d - %s",
  68. tm->tm_hour, tm->tm_min, tm->tm_sec, SeqEndTime.millitm, buffer);
  69. printf("%s ", Buf);
  70. } else {
  71. sprintf(Buf, "echo \"%04d-%02d-%02d %02d:%02d:%02d:%03d - %s\" >> /Storage/SystemLog/[%04d.%02d]SystemLog",
  72. tm->tm_year + 1900, tm->tm_mon + 1, tm->tm_mday, tm->tm_hour, tm->tm_min, tm->tm_sec, SeqEndTime.millitm,
  73. buffer,
  74. tm->tm_year + 1900, tm->tm_mon + 1);
  75. system(Buf);
  76. }
  77. return rc;
  78. }
  79. */
  80. #if 0 //non use
  81. int DiffTimeb(struct timeb ST, struct timeb ET)
  82. {
  83. //return milli-second
  84. unsigned int StartTime, StopTime;
  85. StartTime = (unsigned int)ST.time;
  86. StopTime = (unsigned int)ET.time;
  87. return (StopTime - StartTime) * 1000 + ET.millitm - ST.millitm;
  88. }
  89. //=================================
  90. // Common routine
  91. //=================================
  92. char *getTimeString(void)
  93. {
  94. char *result = malloc(21);
  95. time_t timep;
  96. struct tm *p;
  97. time(&timep);
  98. p = gmtime(&timep);
  99. sprintf(result, "[%04d-%02d-%02d %02d:%02d:%02d]",
  100. (1900 + p->tm_year),
  101. (1 + p->tm_mon),
  102. p->tm_mday,
  103. p->tm_hour,
  104. p->tm_hour,
  105. p->tm_sec);
  106. return result;
  107. }
  108. #endif //0
  109. //==========================================
  110. // Init all share memory
  111. //==========================================
  112. /*int InitShareMemory()
  113. {
  114. int result = PASS;
  115. int MeterSMId;
  116. //creat ShmSysConfigAndInfo
  117. if ((MeterSMId = shmget(ShmSysConfigAndInfoKey, sizeof(struct SysConfigAndInfo), 0777)) < 0) {
  118. result = FAIL;
  119. } else if ((ShmSysConfigAndInfo = shmat(MeterSMId, NULL, 0)) == (void *) - 1) {
  120. result = FAIL;
  121. }
  122. //creat ShmStatusCodeData
  123. if ((MeterSMId = shmget(ShmStatusCodeKey, sizeof(struct StatusCodeData), 0777)) < 0) {
  124. result = FAIL;
  125. } else if ((ShmStatusCodeData = shmat(MeterSMId, NULL, 0)) == (void *) - 1) {
  126. result = FAIL;
  127. }
  128. //creat ShmStatusCodeData
  129. if ((MeterSMId = shmget(ShmPrimaryMcuKey, sizeof(struct PrimaryMcuData), 0777)) < 0) {
  130. result = FAIL;
  131. } else if ((ShmPrimaryMcuData = shmat(MeterSMId, NULL, 0)) == (void *) - 1) {
  132. result = FAIL;
  133. }
  134. return result;
  135. }
  136. */
  137. //================================================
  138. // Function
  139. //================================================
  140. void GetFwAndHwVersion(int fd)
  141. {
  142. Ver ver = {0};
  143. if (Query_FW_Ver(fd, OP_ADDR_IO_EXTEND, &ver) == PASS) {
  144. //log_info("Primary FW Rev = %s ", ver.Version_FW);
  145. strcpy((char *)ShmPrimaryMcuData->version, ver.Version_FW);
  146. strcpy((char *) pSysInfo->CsuPrimFwRev, ver.Version_FW);
  147. }
  148. //if (Query_HW_Ver(fd, OP_ADDR_IO_EXTEND, &ver) == PASS)
  149. // ;//log_info("Primary HW Rev = %s ", ver.Version_HW);
  150. }
  151. void GetInputGpioStatus(int fd)
  152. {
  153. uint8_t dispenserSwTmp = 0;
  154. Gpio_in gpio_in = {0};
  155. static uint8_t dispenserSw = 0;
  156. //log_info("GetInputGpioStatus ");
  157. if (Query_Gpio_Input(fd, OP_ADDR_IO_EXTEND, &gpio_in) != PASS) {
  158. return;
  159. }
  160. ShmPrimaryMcuData->InputDet.bits.SpdDetec = gpio_in.SPD;
  161. #ifdef DD360ComBox
  162. EmgBtn_flag = 0;
  163. #else
  164. if (gpio_in.Emergency_Btn && (EmgBtn_flag != gpio_in.Emergency_Btn))
  165. {
  166. EmgBtn_count++;
  167. if (EmgBtn_count > SensorTrigCount) {
  168. EmgBtn_flag = 1;
  169. EmgBtn_count = 0; // Avoid Overflow
  170. }
  171. } else if (EmgBtn_flag != gpio_in.Emergency_Btn ) {
  172. EmgBtn_count++;
  173. if (EmgBtn_count > SensorTrigCount) {
  174. EmgBtn_flag = 0;
  175. EmgBtn_count = 0;
  176. }
  177. }
  178. #endif
  179. ShmPrimaryMcuData->InputDet.bits.EmergencyButton = EmgBtn_flag;
  180. dispenserSwTmp |= (ShmPrimaryMcuData->InputDet.bits.Key0);
  181. dispenserSwTmp |= (ShmPrimaryMcuData->InputDet.bits.Key1 << 1);
  182. dispenserSwTmp |= (ShmPrimaryMcuData->InputDet.bits.Key2 << 2);
  183. dispenserSwTmp |= (ShmPrimaryMcuData->InputDet.bits.Key3 << 3);
  184. if (dispenserSwTmp != dispenserSw) {
  185. dispenserSw = dispenserSwTmp;
  186. log_info("Dispenser switch number = %d, bit = %d, %d, %d, %d",
  187. dispenserSw,
  188. ShmPrimaryMcuData->InputDet.bits.Key3,
  189. ShmPrimaryMcuData->InputDet.bits.Key2,
  190. ShmPrimaryMcuData->InputDet.bits.Key1,
  191. ShmPrimaryMcuData->InputDet.bits.Key0);
  192. }
  193. ShmPrimaryMcuData->InputDet.bits.Button1 = gpio_in.Button[0];
  194. ShmPrimaryMcuData->InputDet.bits.Button2 = gpio_in.Button[1];
  195. #if defined DD360 || defined DD360Audi || defined DD360ComBox
  196. if ((strncmp((char *)&pSysConfig->ModelName[7], "V", 1) == 0) ||
  197. (strncmp((char *)&pSysConfig->ModelName[9], "V", 1) == 0) ||
  198. (strncmp((char *)&pSysConfig->ModelName[7], "F", 1) == 0) ||
  199. (strncmp((char *)&pSysConfig->ModelName[9], "F", 1) == 0)
  200. ) {
  201. pAlarmCode->AlarmEvents.bits.CcsLiquidChillerWaterLevelWarning = ~gpio_in.AC_Connector;
  202. pFaultCode->FaultEvents.bits.CcsLiquidChillerWaterLevelFault = ~gpio_in.AC_MainBreaker;
  203. } else {
  204. pAlarmCode->AlarmEvents.bits.CcsLiquidChillerWaterLevelWarning = gpio_in.AC_Connector;
  205. pFaultCode->FaultEvents.bits.CcsLiquidChillerWaterLevelFault = gpio_in.AC_MainBreaker;
  206. }
  207. #if defined DD360ComBox
  208. Door_flag = 0;
  209. #else
  210. if (Door_flag == gpio_in.Door_Open) {
  211. Door_count++;
  212. if (Door_count == 3 ) {
  213. Door_count = 0;
  214. Door_flag = gpio_in.Door_Open;
  215. }
  216. } else {
  217. Door_flag = gpio_in.Door_Open;
  218. Door_count = 0;
  219. }
  220. /*
  221. if (gpio_in.Door_Open == 0 && (Door_flag == gpio_in.Door_Open))
  222. {
  223. Door_count++;
  224. if (Door_count > SensorTrigCount) {
  225. Door_flag = 1;
  226. Door_count = 0; // Avoid Overflow
  227. }
  228. } else if (gpio_in.Door_Open && Door_flag) {
  229. Door_count++;
  230. if (Door_count > SensorTrigCount) {
  231. Door_flag = 0;
  232. Door_count = 0;
  233. }
  234. }
  235. */
  236. #endif
  237. #if defined DD360ComBox
  238. ShmPrimaryMcuData->InputDet.bits.DoorOpen = Door_flag;
  239. #else
  240. ShmPrimaryMcuData->InputDet.bits.DoorOpen = ~Door_flag;
  241. #endif
  242. /*
  243. log_info("Emergency Button Count = %d , Emergency flag = %d",
  244. EmgBtn_count,EmgBtn_flag);
  245. log_info("Door Sensor Count = %d , Door Sensor flag = %d",
  246. Door_count,Door_flag);
  247. */
  248. ShmPrimaryMcuData->InputDet.bits.Key0 = ~gpio_in.Key[0] & 0x01;
  249. ShmPrimaryMcuData->InputDet.bits.Key1 = ~gpio_in.Key[1] & 0x01;
  250. ShmPrimaryMcuData->InputDet.bits.Key2 = ~gpio_in.Key[2] & 0x01;
  251. ShmPrimaryMcuData->InputDet.bits.Key3 = ~gpio_in.Key[3] & 0x01;
  252. return;
  253. #endif //defined DD360 || defined DD360Audi || defined DD360ComBox
  254. static uint8_t _curDeviceStatus[3] = {0};
  255. static uint8_t _reCheckCount[3] = {0};
  256. //DS60-120 add
  257. if (_curDeviceStatus[_PRIMARY_CHECK_TAG_AC_CONTACT] != gpio_in.AC_Connector) {
  258. if (_reCheckCount[_PRIMARY_CHECK_TAG_AC_CONTACT] >= 3) {
  259. _curDeviceStatus[_PRIMARY_CHECK_TAG_AC_CONTACT] = gpio_in.AC_Connector;
  260. pSysInfo->AcContactorStatus =
  261. ShmPrimaryMcuData->InputDet.bits.AcContactorDetec =
  262. gpio_in.AC_Connector;
  263. } else {
  264. _reCheckCount[_PRIMARY_CHECK_TAG_AC_CONTACT]++;
  265. }
  266. } else {
  267. _reCheckCount[_PRIMARY_CHECK_TAG_AC_CONTACT] = 0;
  268. }
  269. if (_curDeviceStatus[_PRIMARY_CHECK_TAG_MAIN_BREAKER] != gpio_in.AC_MainBreaker) {
  270. if (_reCheckCount[_PRIMARY_CHECK_TAG_MAIN_BREAKER] >= 3) {
  271. _curDeviceStatus[_PRIMARY_CHECK_TAG_MAIN_BREAKER] = gpio_in.AC_MainBreaker;
  272. ShmPrimaryMcuData->InputDet.bits.AcMainBreakerDetec = gpio_in.AC_MainBreaker;
  273. } else {
  274. _reCheckCount[_PRIMARY_CHECK_TAG_MAIN_BREAKER]++;
  275. }
  276. } else {
  277. _reCheckCount[_PRIMARY_CHECK_TAG_MAIN_BREAKER] = 0;
  278. }
  279. //pSysInfo->AcContactorStatus = ShmPrimaryMcuData->InputDet.bits.AcContactorDetec = gpio_in.AC_Connector;
  280. //ShmPrimaryMcuData->InputDet.bits.AcMainBreakerDetec = gpio_in.AC_MainBreaker;
  281. ShmPrimaryMcuData->InputDet.bits.Key0 = gpio_in.Key[0] & 0x01;
  282. ShmPrimaryMcuData->InputDet.bits.Key1 = gpio_in.Key[1] & 0x01;
  283. ShmPrimaryMcuData->InputDet.bits.Key2 = gpio_in.Key[2] & 0x01;
  284. ShmPrimaryMcuData->InputDet.bits.Key3 = gpio_in.Key[3] & 0x01;
  285. ShmPrimaryMcuData->InputDet.bits.DoorOpen = gpio_in.Door_Open;
  286. /*printf(" gpio_in.Key[0]~ gpio_in.Key[3]=%d, %d, %d, %d",
  287. ShmPrimaryMcuData->InputDet.bits.Key0 , ShmPrimaryMcuData->InputDet.bits.Key1,
  288. ShmPrimaryMcuData->InputDet.bits.Key2,ShmPrimaryMcuData->InputDet.bits.Key3);
  289. printf("pAlarmCode->AlarmEvents.bits.CcsLiquidChillerWaterLevelWarning=%d", pAlarmCode->AlarmEvents.bits.CcsLiquidChillerWaterLevelWarning);
  290. printf("pFaultCode->FaultEvents.bits.CcsLiquidChillerWaterLevelFault=%d", pFaultCode->FaultEvents.bits.CcsLiquidChillerWaterLevelFault);
  291. */
  292. //log_info("left = %d ", ShmPrimaryMcuData->InputDet.bits.Button1);
  293. //log_info("right = %d ", ShmPrimaryMcuData->InputDet.bits.Button2);
  294. //log_info("pSysInfo->AcContactorStatus = %d ", pSysInfo->AcContactorStatus);
  295. if (ShmPrimaryMcuData->InputDet.bits.AcMainBreakerDetec == YES) {
  296. log_error("AC Mainbreaker occur. ");
  297. }
  298. }
  299. static void checkChillerStatus(Gpio_out *gpio)
  300. {
  301. uint8_t gunIndex = 0;
  302. uint8_t chillerCount = 0;
  303. struct ChargingInfoData *pDcChargingInfo = NULL;
  304. static ChillerInfo fChillerInfo[2] = {0}, *pChillerInfo = NULL;
  305. static ChillerInfo _chiller;
  306. Gpio_out *pGpio = (Gpio_out *)gpio;
  307. if ((strncmp((char *)&pSysConfig->ModelName[7], "V", 1) == 0) ||
  308. (strncmp((char *)&pSysConfig->ModelName[7], "F", 1) == 0)) {
  309. chillerCount++;
  310. }
  311. if ((strncmp((char *)&pSysConfig->ModelName[9], "V", 1) == 0) ||
  312. (strncmp((char *)&pSysConfig->ModelName[9], "F", 1) == 0)) {
  313. chillerCount++;
  314. }
  315. if (chillerCount == 0) {
  316. pGpio->AC_Connector = 0x00;
  317. return;
  318. }
  319. for (gunIndex = 0; gunIndex < chillerCount; gunIndex++) {
  320. pDcChargingInfo = (struct ChargingInfoData *)GetDcChargingInfoData(gunIndex);
  321. pChillerInfo = (ChillerInfo *)&fChillerInfo[gunIndex];
  322. if((pDcChargingInfo->SystemStatus > S_IDLE && pDcChargingInfo->SystemStatus < S_TERMINATING) ||
  323. (pDcChargingInfo->SystemStatus >= S_CCS_PRECHARGE_ST0 && pDcChargingInfo->SystemStatus <= S_CCS_PRECHARGE_ST1))
  324. {
  325. pChillerInfo->ChillerSwitch = YES;
  326. pChillerInfo->ChillerOnTime = time((time_t *)NULL);
  327. }
  328. else
  329. {
  330. if(pChillerInfo->ChillerSwitch == YES)
  331. {
  332. //10分鐘後停止
  333. if ((time((time_t *)NULL) - pChillerInfo->ChillerOnTime) >= 600)
  334. {
  335. pChillerInfo->ChillerSwitch = NO;
  336. }
  337. }
  338. else
  339. {
  340. pChillerInfo->ChillerSwitch = NO;
  341. }
  342. }
  343. #if 0
  344. if ((pDcChargingInfo->PresentChargingCurrent) >= 150) { //當前電壓於150A,打開水冷機
  345. pChillerInfo->ChillerSwitch = YES;
  346. pChillerInfo->ChillerOnTime = time((time_t *)NULL);
  347. } else {
  348. if (pChillerInfo->ChillerSwitch == YES) {
  349. if ((pDcChargingInfo->PresentChargingCurrent) >= 100) { //判斷如果還是大於100A不變動
  350. pChillerInfo->ChillerSwitch = YES;
  351. pChillerInfo->ChillerOnTime = time((time_t *)NULL);
  352. } else {
  353. if ((time((time_t *)NULL) - pChillerInfo->ChillerOnTime) >= 600) { //5分鐘後停止
  354. pChillerInfo->ChillerSwitch = NO;
  355. } else {
  356. pChillerInfo->ChillerSwitch = YES;
  357. }
  358. }
  359. } else {
  360. pChillerInfo->ChillerSwitch = NO;
  361. }
  362. }
  363. #endif
  364. }
  365. uint8_t _chillerNeedOn = NO;
  366. for (gunIndex = 0; gunIndex < chillerCount; gunIndex++)
  367. {
  368. pChillerInfo = (ChillerInfo *)&fChillerInfo[gunIndex];
  369. if(pChillerInfo->ChillerSwitch == YES)
  370. {
  371. _chillerNeedOn = YES;
  372. }
  373. }
  374. if(_chiller.ChillerSwitch != _chillerNeedOn)
  375. {
  376. log_info("Chiller Need Turn %s", _chillerNeedOn == YES ? "ON" : "OFF");
  377. }
  378. _chiller.ChillerSwitch = _chillerNeedOn;
  379. pGpio->AC_Connector = _chiller.ChillerSwitch;//Chiller ON/OFF Control, "0: Chiller disable, 1: Chiller enable"
  380. }
  381. void SetOutputGpio(int fd, uint8_t outputValue)
  382. {
  383. Gpio_out gpio;
  384. LedConfig *pLedConfig = (LedConfig *)&outputValue;
  385. static uint8_t flash = NO;
  386. if (strcmp((char *)pSysInfo->LcmHwRev, " ") == 0x00) {
  387. if (flash == NO) {
  388. flash = YES;
  389. } else {
  390. flash = NO;
  391. }
  392. } else {
  393. if (flash == NO) {
  394. flash = YES;
  395. }
  396. }
  397. pLedConfig->LeftButtonLed = flash;
  398. pLedConfig->RightButtonLed = flash;
  399. gpio.Button_LED[0] = pLedConfig->LeftButtonLed;
  400. gpio.Button_LED[1] = pLedConfig->RightButtonLed;
  401. gpio.System_LED[0] = pLedConfig->GreenLED;
  402. gpio.System_LED[1] = pLedConfig->YellowLED;
  403. gpio.System_LED[2] = pLedConfig->RedLED;
  404. gpio.System_LED[3] = 0x00;
  405. checkChillerStatus(&gpio);
  406. gpio.AC_Breaker = 0x00;
  407. Config_Gpio_Output(fd, OP_ADDR_IO_EXTEND, &gpio);
  408. }
  409. void SetRtcData(int fd)
  410. {
  411. Rtc rtc = {0};
  412. struct timeb csuTime;
  413. struct tm *tmCSU;
  414. ftime(&csuTime);
  415. tmCSU = localtime(&csuTime.time);
  416. //log_info("Time : %04d-%02d-%02d %02d:%02d:%02d ",
  417. // tmCSU->tm_year + 1900,
  418. // tmCSU->tm_mon + 1,
  419. // tmCSU->tm_mday,
  420. // tmCSU->tm_hour,
  421. // tmCSU->tm_min,
  422. // tmCSU->tm_sec);
  423. rtc.RtcData[0] = '0' + (tmCSU->tm_year + 1900) / 1000 % 10;
  424. rtc.RtcData[1] = '0' + (tmCSU->tm_year + 1900) / 100 % 10;
  425. rtc.RtcData[2] = '0' + (tmCSU->tm_year + 1900) / 10 % 10;
  426. rtc.RtcData[3] = '0' + (tmCSU->tm_year + 1900) / 1 % 10;
  427. rtc.RtcData[4] = '0' + (tmCSU->tm_mon + 1) / 10 % 10;
  428. rtc.RtcData[5] = '0' + (tmCSU->tm_mon + 1) / 1 % 10;
  429. rtc.RtcData[6] = '0' + (tmCSU->tm_mday) / 10 % 10;
  430. rtc.RtcData[7] = '0' + (tmCSU->tm_mday) / 1 % 10;
  431. rtc.RtcData[8] = '0' + (tmCSU->tm_hour) / 10 % 10;
  432. rtc.RtcData[9] = '0' + (tmCSU->tm_hour) / 1 % 10;
  433. rtc.RtcData[10] = '0' + (tmCSU->tm_min) / 10 % 10;
  434. rtc.RtcData[11] = '0' + (tmCSU->tm_min) / 1 % 10;
  435. rtc.RtcData[12] = '0' + (tmCSU->tm_sec) / 10 % 10;
  436. rtc.RtcData[13] = '0' + (tmCSU->tm_sec) / 1 % 10;
  437. if (Config_Rtc_Data(fd, OP_ADDR_IO_EXTEND, &rtc) == PASS) {
  438. //log_info("SetRtc sucessfully. ");
  439. } else {
  440. //log_info("SetRtc fail. ");
  441. }
  442. }
  443. void SetModelName(int fd)
  444. {
  445. if (Config_Model_Name(fd, OP_ADDR_IO_EXTEND, pSysConfig->ModelName) == PASS) {
  446. }
  447. }
  448. //================================================
  449. // Main process
  450. //================================================
  451. int InitComPort()
  452. {
  453. int fd;
  454. struct termios tios;
  455. fd = open(priPortName, O_RDWR);
  456. if (fd <= 0) {
  457. #ifdef SystemLogMessage
  458. log_error("open 407 Communication port NG ");
  459. #endif
  460. return -1;
  461. }
  462. ioctl (fd, TCGETS, &tios);
  463. tios.c_cflag = B115200 | CS8 | CLOCAL | CREAD;
  464. tios.c_lflag = 0;
  465. tios.c_iflag = 0;
  466. tios.c_oflag = 0;
  467. tios.c_cc[VMIN] = 0;
  468. tios.c_cc[VTIME] = (uint8_t)1;
  469. tios.c_lflag = 0;
  470. tcflush(fd, TCIFLUSH);
  471. ioctl (fd, TCSETS, &tios);
  472. return fd;
  473. }
  474. unsigned long GetTimeoutValue(struct timeval _sour_time)
  475. {
  476. struct timeval _end_time;
  477. gettimeofday(&_end_time, NULL);
  478. return 1000000 * (_end_time.tv_sec - _sour_time.tv_sec) + _end_time.tv_usec - _sour_time.tv_usec;
  479. }
  480. //int FindChargingInfoData(uint8_t target, struct ChargingInfoData **chargingData)
  481. //{
  482. // for (uint8_t index = 0; index < CHAdeMO_QUANTITY; index++) {
  483. // if (pSysInfo->ChademoChargingData[index].Index == target) {
  484. // chargingData[target] = &pSysInfo->ChademoChargingData[index];
  485. // return 1;
  486. // }
  487. // }
  488. //
  489. // for (uint8_t index = 0; index < CCS_QUANTITY; index++) {
  490. // if (pSysInfo->CcsChargingData[index].Index == target) {
  491. // chargingData[target] = &pSysInfo->CcsChargingData[index];
  492. // return 1;
  493. // }
  494. // }
  495. //
  496. // for (uint8_t index = 0; index < GB_QUANTITY; index++) {
  497. // if (pSysInfo->GbChargingData[index].Index == target) {
  498. // chargingData[target] = &pSysInfo->GbChargingData[index];
  499. // return 1;
  500. // }
  501. // }
  502. //
  503. // return 0;
  504. //}
  505. //void Initialization() //DS60-120 add
  506. //{
  507. // bool isPass = false;
  508. // while (!isPass) {
  509. // isPass = true;
  510. // for (uint8_t _index = 0; _index < gun_count; _index++) {
  511. // if (!FindChargingInfoData(_index, &ChargingData[0])) {
  512. // log_error("EvComm (main) : FindChargingInfoData false ");
  513. // isPass = false;
  514. // break;
  515. // }
  516. // }
  517. // sleep(1);
  518. // }
  519. //}
  520. static bool IsPrimaryProcessNeedPause(void)
  521. {
  522. bool _pause = false;
  523. static bool isPause = false;
  524. struct ChargingInfoData *pDcChargingInfo = NULL;
  525. for (uint8_t i = 0; i < pSysConfig->TotalConnectorCount; i++)
  526. {
  527. pDcChargingInfo = (struct ChargingInfoData *)GetDcChargingInfoData(i);
  528. if(pDcChargingInfo->SystemStatus == S_UPDATE)
  529. {
  530. _pause = true;
  531. }
  532. }
  533. if(isPause != _pause)
  534. {
  535. log_info("Primary Process Now Is %s ", _pause == true ? "Paused" : "Continued");
  536. }
  537. isPause = _pause;
  538. return _pause;
  539. }
  540. int main(void)
  541. {
  542. int Uart1Fd = -1;
  543. //if (InitShareMemory() == FAIL) {
  544. // log_error("InitShareMemory NG");
  545. // if (ShmStatusCodeData != NULL) {
  546. // pAlarmCode->AlarmEvents.bits.FailToCreateShareMemory = 1;
  547. // }
  548. // sleep(5);
  549. // return 0;
  550. //}
  551. if (CreateAllCsuShareMemory() == FAIL) {
  552. log_error("create share memory error");
  553. return FAIL;
  554. }
  555. MappingGunChargingInfo("Primary Task");
  556. pSysConfig = (struct SysConfigData *)GetShmSysConfigData();
  557. pSysInfo = (struct SysInfoData *)GetShmSysInfoData();
  558. pAlarmCode = (struct AlarmCodeData *)GetShmAlarmCodeData();
  559. pFaultCode = (struct FaultCodeData *)GetShmFaultCodeData();
  560. ShmPrimaryMcuData = (struct PrimaryMcuData *)GetShmPrimaryMcuData();
  561. Uart1Fd = InitComPort();
  562. //log_info("407 Port id = %d ", Uart1Fd);
  563. if (Uart1Fd < 0) {
  564. log_error("InitComPort (Uart1 : AM3352 - STM32) NG");
  565. if (pAlarmCode != NULL) {
  566. pAlarmCode->AlarmEvents.bits.CsuInitFailed = 1;
  567. }
  568. sleep(5);
  569. return 0;
  570. }
  571. SetRtcData(Uart1Fd);
  572. SetModelName(Uart1Fd);
  573. gun_count = pSysConfig->TotalConnectorCount;
  574. //Initialization();
  575. for (;;) {
  576. // 程序開始之前~ 必須先確定 FW 版本與硬體版本,確認後!!~ 該模組才算是真正的 Initial Comp.
  577. // 模組更新 FW 後,需重新做
  578. if (ShmPrimaryMcuData->SelfTest_Comp != PASS) {
  579. //log_info("(407) Get Fw and Hw Ver. ");
  580. GetFwAndHwVersion(Uart1Fd);
  581. sleep(1);
  582. ShmPrimaryMcuData->SelfTest_Comp = PASS;
  583. } else {
  584. SetOutputGpio(Uart1Fd, ShmPrimaryMcuData->OutputDrv.OutputDrvValue[0]);
  585. GetInputGpioStatus(Uart1Fd);
  586. }
  587. if(IsPrimaryProcessNeedPause() == true)
  588. {
  589. sleep(1);
  590. continue;
  591. }
  592. usleep(50000);
  593. }
  594. return FAIL;
  595. }