AssistCurve.c 41 KB

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  1. /**
  2. * @file AssistCurve.c
  3. * @author Zhang, Kai(zhangkai71@midea.com)
  4. * @brief
  5. * @version 0.1
  6. * @date 2021-11-15
  7. *
  8. * @copyright Copyright (c) 2021
  9. *
  10. */
  11. /******************************
  12. *
  13. * Include File
  14. *
  15. ******************************/
  16. #include "string.h"
  17. #include "Syspar.h"
  18. #include "user.h"
  19. #include "AssistCurve.h"
  20. #include "bikebrake.h"
  21. #include "Cadence.h"
  22. #include "flash_master.h"
  23. /******************************
  24. *
  25. * Parameter
  26. *
  27. ******************************/
  28. ASS_FSM_STATUS Ass_FSM;
  29. ASS_PER_IN ass_stCalIn = TORQUE_CAL_IN_DEFAULT;
  30. ASS_PER_COEF ass_stCalCoef;
  31. ASS_PER_OUT ass_stCalOut;
  32. ASS_PARA_CONFIGURE ass_stParaCong;
  33. ASS_PARA_SET ass_stParaSet;
  34. ASS_CURLIM_COEF ass_stCurLimCoef = ASS_LIM_DEFAULT;
  35. ASS_CURLIM_OUT ass_stCurLimOut;
  36. ASS_LIMIT_ACCORDING_VOL_COF ass_stCurLimCalBMSCoef;
  37. ASS_LIMIT_ACCORDING_VOL_OUT ass_stCurLimitCalBMSOut;
  38. ASR_SPDPI_IN asr_stTorqSpdPIIn;
  39. ASR_SPDPI_OUT asr_stTorqSpdPIOut;
  40. ASR_SPDPI_COF asr_stTorqSpdPICoef;
  41. ASR_SPDPI_COFIN asr_stTorqSpdPICoefIn;
  42. ASS_TORQ_PI_IN ass_stTorqPIIn;
  43. ASS_TORQ_PI_OUT ass_stTorqPIOut;
  44. SWORD ass_swTorqMafBuf[64];
  45. MAF_IN ass_stTorqMafValue = {0, 32, 0, 0, ass_swTorqMafBuf, 0, FALSE};
  46. SWORD ass_swUqLimMafBuf[64];
  47. MAF_IN ass_stUqLimMafValue = {0, 64, 0, 0, ass_swUqLimMafBuf, 0, FALSE};
  48. static TOR2CURRENT_CAL_COEF ass_Tor2CurCalCoef;
  49. static UWORD StartUpGainArray[5] = START_GAIN_DEFAULT;
  50. static UWORD LinerAssist[5] = ASS_LINER_TORQUE_DEFAULT;
  51. /******************************
  52. *
  53. * Function
  54. *
  55. ******************************/
  56. /**
  57. * @brief Three order polynomial Y = a*X^3 + b*X^2 + c*x +d
  58. *
  59. * @param coef polynomial coefficient a, b, c, d
  60. * @param Value polynomial input value X
  61. * @param Qnum polynomial input Q type
  62. * @return UWORD polynomial output Y
  63. */
  64. static SLONG ass_slPolynomial(const POLY_COEF *coef, const SWORD *value, UWORD Qnum)
  65. {
  66. SLONG out;
  67. SLONG temp_a, temp_b, temp_c;
  68. /* out = a * x ^ 3 + b * x ^ 2 + c * x + d */
  69. temp_a = (SLONG)((((((SQWORD)coef->a * *value >> 12) * *value) >> (SWORD)Qnum) * *value) >> (SWORD)Qnum); // Qx+Q12-Q12+Qx-Qx+Qx-Qx=Qx
  70. temp_b = (SLONG)((((SQWORD)coef->b * *value >> 12) * *value) >> (SWORD)Qnum); // Qx+Q12-Q12+Qx-Qx=Qx
  71. temp_c = (SLONG)((SQWORD)coef->c * *value >> 12); // Qx+Q12-Q12=Qx
  72. out = temp_a + temp_b + temp_c + coef->d;
  73. out = (SLONG)out;
  74. return out;
  75. }
  76. /**
  77. * @brief Y = z*(x-h)^2 + k to Y = a*X^3 + b*X^2 + c*x +d
  78. *
  79. * @param coef original point coefficient z, h, k
  80. * @return POLY_COEF a, b, c, d
  81. */
  82. //static POLY_COEF ass_stPolynomialcenter(ORIG_COEF *coef)
  83. //{
  84. // POLY_COEF out;
  85. // /* a = 0; b = z; c = -2ha; d= ah^2 +k*/
  86. // out.a = (SQWORD)0; // Q12
  87. // out.b = (SQWORD)coef->z; // Q12
  88. // out.c = -(((SQWORD)2 * coef->h * coef->z) >> 12); // Q12
  89. // out.d = (((((SQWORD)coef->z * coef->h) >> 12) * coef->h) >> 12) + (SLONG)coef->k; // Q12
  90. // return out;
  91. //}
  92. /**
  93. * @brief Torque to Current when Id = 0;
  94. * Te = 1.5p*iq*fai -> iq = te/(1.5*p*fai)
  95. * @param coef polynomial coefficient a, b, c, d
  96. * @param Value polynomial input value X
  97. * @param Qnum polynomial input Q type
  98. * @return UWORD polynomial output Y
  99. */
  100. static SWORD ass_swTorq2CurPu(SWORD Tor)
  101. {
  102. SWORD swCurrentPu;
  103. SWORD swMotorTorqueNotPu;
  104. swMotorTorqueNotPu = (SWORD)(((SLONG)Tor * (SWORD)TORQUEBASE / (SWORD)ass_stParaCong.uwMechRationMotor) >> 7); // Q14-Q7 = Q7 0.1Nm Not Pu
  105. swCurrentPu = (SWORD)(((SLONG)swMotorTorqueNotPu * ass_Tor2CurCalCoef.swCalCoefINV) * 10 / IBASE); // Q7+Q7 = Q14; 0.1Nm/0.01A
  106. return swCurrentPu;
  107. }
  108. /**
  109. * @brief
  110. *
  111. * @param
  112. * @return
  113. */
  114. static void ass_voAssistModeSelect(void) // 上电运行一次or助力参数更新后,AssistCoef需要重新计算
  115. {
  116. UWORD TempAssit;
  117. UWORD TempGear, gear;
  118. // if (ass_stParaSet.uwAsssistSelectNum == 1) // OBC:更换成EE参数
  119. // {
  120. // TempAssit = ass_stParaCong.uwAssistSelect1;
  121. // }
  122. // else if (ass_stParaSet.uwAsssistSelectNum == 2)
  123. // {
  124. // TempAssit = ass_stParaCong.uwAssistSelect2;
  125. // }
  126. // else
  127. // {
  128. // TempAssit = ASSISTMOD_SELECT_DEFAULT;
  129. // }
  130. if (ass_stParaCong.uwStartMode == 1) // OBC:更换成EE参数
  131. {
  132. TempAssit = ASSISTMOD_SELECT_DEFAULT;
  133. }
  134. else if (ass_stParaCong.uwStartMode == 2)
  135. {
  136. TempAssit = ass_stParaCong.uwAssistSelect1;
  137. }
  138. else if (ass_stParaCong.uwStartMode == 3)
  139. {
  140. TempAssit = ass_stParaCong.uwAssistSelect2;
  141. }
  142. else
  143. {
  144. TempAssit = ASSISTMOD_SELECT_DEFAULT;
  145. }
  146. SLONG slTorqGainSum =0;
  147. for(UWORD i = 0; i < 4; i++)
  148. {
  149. slTorqGainSum += flash_stPara.slTorqAssGain[0][i];
  150. }
  151. if(slTorqGainSum == 0)
  152. {
  153. SLONG slTorqAssGain[15][4] = TORQUE_ASSIST_DEFAULT;
  154. SLONG slCadAssGain[5][4] = CADENCE_ASSIST_DEFAULT;
  155. UWORD a ;
  156. a =sizeof( slTorqAssGain);
  157. memcpy(&flash_stPara.slTorqAssGain[0], &slTorqAssGain[0], sizeof(slTorqAssGain));
  158. memcpy(&flash_stPara.slCadAssGain[0], &slCadAssGain[0], sizeof(slCadAssGain));
  159. }
  160. for (gear = 0; gear < 5; gear++)
  161. {
  162. TempGear = gear * 3 + ((TempAssit >> (UWORD)(gear << 1)) & 0x0003);
  163. memcpy(&ass_stCalCoef.uwTorqueAssGain[(gear + 1)], &flash_stPara.slTorqAssGain[TempGear], sizeof(POLY_COEF));
  164. }
  165. memcpy(&ass_stCalCoef.uwCadencAsseGain[1], &flash_stPara.slCadAssGain[0], sizeof(flash_stPara.slCadAssGain));
  166. }
  167. /**
  168. * @brief Para from EE Init
  169. *
  170. * @param void
  171. * @return void
  172. */
  173. void ass_voAssitEEInit(void)
  174. {
  175. ass_stParaCong.uwWheelPerimeter = BIKE_WHEEL_PERIMETER; // Q0 0.1CM
  176. ass_stParaCong.uwCadPulsePerCirc = CADENCE_PULSES_PER_CIRC;
  177. ass_stParaCong.uwMechRationMotor = 35; // Q0
  178. ass_stParaCong.uwAssistMaxSpdKmH = BIKE_SPEED_IQLIMIT_THRESHOLD1;
  179. ass_stParaCong.uwThrottleMaxSpdKmH = BIKE_SPEED_THROTTLE_MAX;
  180. ass_stParaCong.uwNmFrontChainring = BIKE_FRONTTEETH_NMB; // front gear
  181. ass_stParaCong.uwNmBackChainring = BIKE_BACKTEETH_NMB; // min number of back gear
  182. ass_stParaCong.uwAssistSelect1 = BIKE_ASSIST_MODE1;
  183. ass_stParaCong.uwAssistSelect2 = BIKE_ASSIST_MODE2;
  184. ass_stParaCong.uwLightVoltage = BIKE_LIGHT_VOLTAGE;
  185. ass_stParaCong.swDeltPerimeter = BIKE_WHEEL_SIZE_ADJUST;
  186. ass_stParaCong.uwStartMode = BIKE_START_MODE;
  187. ass_stParaCong.uwAutoPowerOffTime = BIKE_AUTO_POWER_OFF_TIME;
  188. ass_stParaSet.uwStartupCoef = 8194; // Q12 percentage Min 1-4096 1.5-6144
  189. ass_stParaSet.uwStartupCruiseCoef = 4096; // Q12 percentage Min 1-4096 1-6144
  190. ass_stParaSet.uwAssistStartNm = TORQUE_START_THRESHOLD;
  191. ass_stParaSet.uwAssistStopNm = TORQUE_STOP_THRESHOLD;
  192. ass_stParaSet.uwStartUpGainStep = 25;
  193. ass_stParaSet.uwStartUpCadNm = CADENCE_NUMBERS_PULSES >> 1; // 0.5 circle
  194. ass_stParaSet.uwTorLPFCadNm = CADENCE_NUMBERS_PULSES >> 1; // 0.5 circle
  195. ass_stParaSet.uwSpeedAssistSpdRpm = BIKE_SPD_MOTOR_CONSTANT_COMMAND;
  196. ass_stParaSet.uwSpeedAssistIMaxA = BIKE_SPD_MOTOR_CURRENT_MAX;
  197. ass_stParaSet.uwAssistLimitBikeSpdStart = BIKE_SPEED_IQLIMIT_THRESHOLD1;
  198. ass_stParaSet.uwAssistLimitBikeSpdStop = BIKE_SPEED_IQLIMIT_THRESHOLD2;
  199. ass_stParaSet.uwCadenceWeight = 1229; // Q12 percentage
  200. ass_stParaSet.uwTorWeight = Q12_1 ; // Q12 percentage
  201. ass_stParaSet.uwTorAssAjstGain = 4096; // Q12 percentage
  202. ass_stParaSet.uwCadenceAssAjstGain = 4094; // Q12 percentage
  203. ass_stParaSet.uwAsssistSelectNum = 1;
  204. ass_stParaSet.uwSpdRegion[0] = 8192; // Q15 1500rpm
  205. ass_stParaSet.uwSpdRegion[1] = 16384; // Q15 3000rpm
  206. ass_stParaSet.uwSpdRegion[2] = 21845; // Q15 4000rpm
  207. ass_stParaSet.uwSpdRegionGain[0] = 4094;
  208. ass_stParaSet.uwSpdRegionGain[1] = 4094;
  209. ass_stParaSet.uwSpdRegionGain[2] = 4094;
  210. }
  211. /**
  212. * @brief Three order polynomial Y = a*X^3 + b*X^2 + c*x +d
  213. *
  214. * @param coef polynomial coefficient a, b, c, d
  215. * @param Value polynomial input value X
  216. * @param Qnum polynomial input Q type
  217. * @return UWORD polynomial output Y
  218. */
  219. LPF_OUT ass_pvt_stCurLpf;
  220. void ass_voAssitCoef(void)
  221. {
  222. /*状态机初始化*/
  223. Ass_FSM = StopAssit;
  224. /*电机限制初始化*/
  225. ass_stParaCong.uwCofCurMaxPu = ((ULONG)BIKE_ASS_MOTOR_CURRENT_MAX << 14) / IBASE; // Q14
  226. ass_stParaCong.uwMotorPoles = cp_stMotorPara.swMotrPolePairs;
  227. ass_stParaCong.uwCofTorMaxPu = (UWORD)(((ULONG)cp_stMotorPara.swTorMax << 14) / TORQUEBASE); // Q14
  228. ass_stParaCong.uwBikeAssTorMaxPu = ass_stParaCong.uwCofTorMaxPu * ass_stParaCong.uwMechRationMotor; // Q14;
  229. /*速度环参数初始化*/
  230. asr_stTorqSpdPICoefIn.uwUbVt = VBASE;
  231. asr_stTorqSpdPICoefIn.uwIbAp = IBASE;
  232. asr_stTorqSpdPICoefIn.uwFbHz = FBASE;
  233. asr_stTorqSpdPICoefIn.uwFTbsHz = EVENT_1MS_HZ;
  234. asr_stTorqSpdPICoefIn.uwPairs = cp_stMotorPara.swMotrPolePairs;
  235. asr_stTorqSpdPICoefIn.uwMtJm = cp_stMotorPara.swJD;
  236. asr_stTorqSpdPICoefIn.uwMtFlxWb = cp_stMotorPara.swFluxWb;
  237. asr_stTorqSpdPICoefIn.uwMcoef = 5;//cp_stControlPara.swAsrPIM;
  238. asr_stTorqSpdPICoefIn.uwWvcHz = 10;//cp_stControlPara.swAsrPIBandwidth;
  239. asr_stTorqSpdPICoefIn.uwRatioJm = cp_stControlPara.swAsrSpdInerRate;
  240. asr_voSpdPICoef(&asr_stTorqSpdPICoefIn, &asr_stTorqSpdPICoef);
  241. /*电流限幅计算*/
  242. ass_stCurLimCalBMSCoef.uwIqLimitInitAbs = ass_stParaCong.uwCofCurMaxPu; // Q14
  243. ass_stCurLimCalBMSCoef.uwIqLimitStartSoc = 35;
  244. ass_stCurLimCalBMSCoef.uwIqLimitEndSoc = 0;
  245. ass_stCurLimCalBMSCoef.swIqLImitK =
  246. (SWORD)ass_stCurLimCalBMSCoef.uwIqLimitInitAbs / ((SWORD)ass_stCurLimCalBMSCoef.uwIqLimitStartSoc - (SWORD)ass_stCurLimCalBMSCoef.uwIqLimitEndSoc);
  247. /*助力曲线初始化*/
  248. ass_voAssistModeSelect();
  249. /*助力启动阈值初始化*/
  250. ass_stCalCoef.uwAssThreshold = (UWORD)(((ULONG)ass_stParaSet.uwAssistStartNm << 14) / TORQUEBASE); // Q14
  251. ass_stCalCoef.uwAssStopThreshold = (UWORD)(((ULONG)ass_stParaSet.uwAssistStopNm << 14) / TORQUEBASE); // Q14;
  252. /*助力系数初始化*/
  253. ass_stCalCoef.StartFlag = 0;
  254. ass_stCalCoef.swSmoothGain = 0; // Q12
  255. ass_stCalCoef.uwStartUpTargetGain = 0; // Q12
  256. ass_stCalCoef.uwStartUpGainAddStep = ass_stParaSet.uwStartUpGainStep; // 25 Q12
  257. if (ass_stCalCoef.uwStartUpGainAddStep < 1)
  258. {
  259. ass_stCalCoef.uwStartUpGainAddStep = 1;
  260. }
  261. if (ass_stCalCoef.uwStartUpGainAddStep > 50)
  262. {
  263. ass_stCalCoef.uwStartUpGainAddStep = 50;
  264. }
  265. /*设置启动到正常助力最少踏频数*/
  266. ass_stCalCoef.uwStartUpTimeCadenceCnt = ass_stParaSet.uwStartUpCadNm;
  267. if (ass_stCalCoef.uwStartUpTimeCadenceCnt < (CADENCE_NUMBERS_PULSES >> 3))
  268. {
  269. ass_stCalCoef.uwStartUpTimeCadenceCnt = CADENCE_NUMBERS_PULSES >> 3;
  270. }
  271. if (ass_stCalCoef.uwStartUpTimeCadenceCnt > CADENCE_NUMBERS_PULSES)
  272. {
  273. ass_stCalCoef.uwStartUpTimeCadenceCnt = CADENCE_NUMBERS_PULSES;
  274. }
  275. /*设置滑动平均滤波踏频数*/
  276. ass_stTorqMafValue.uwLength = ass_stParaSet.uwTorLPFCadNm;
  277. ass_stCalCoef.swCadanceGain = 0;
  278. ass_stCalCoef.uwSwitch1TorqThreshold = ((ULONG)TORQUE_SWITCH1_THRESHOLD << 14) / TORQUEBASE;
  279. ass_stCalCoef.uwSwitch2TorqThreshold = ((ULONG)TORQUE_SWITCH2_THRESHOLD << 14) / TORQUEBASE;
  280. ass_stCalCoef.ulStartupDeltInv = ((ULONG)1 << 28) / (ass_stCalCoef.uwSwitch2TorqThreshold - ass_stCalCoef.uwSwitch1TorqThreshold); // Q14;
  281. /*初始化计数*/
  282. ass_stCalCoef.uwCadencePeriodCNT = 0;
  283. ass_stCalCoef.swCadanceCNT = 0;
  284. ass_stCalCoef.sw2StopCNT = 0;
  285. ass_stCalCoef.swAss2SpdCNT = 0;
  286. /*配置速度环参数*/
  287. ass_stCalCoef.uwSpeedConstantCommand = (UWORD)(((ULONG)ass_stParaSet.uwSpeedAssistSpdRpm << 15) / ((ULONG)FBASE * 60 / ass_stParaCong.uwMotorPoles));
  288. ass_stCalCoef.swSpdLoopAbsCurMax = ((SWORD)ass_stParaSet.uwSpeedAssistIMaxA << 14) / IBASE;
  289. ass_stCalCoef.swSpeedlimtrpm = -100;
  290. ass_stCalCoef.swBikeSpeedGain = 0;
  291. /*设置电流限幅*/
  292. ass_stCalCoef.uwCurrentMaxPu = ass_stParaCong.uwCofCurMaxPu;
  293. ass_stCalCoef.swCurrentmax_torAssPu = (SWORD)(((SLONG)ass_stCalCoef.uwCurrentMaxPu * (SWORD)ass_stParaSet.uwTorWeight) >> 12); // Q14
  294. ass_stCalCoef.swCurrentmax_cadAssPu = (SWORD)(((SLONG)ass_stCalCoef.uwCurrentMaxPu * (SWORD)ass_stParaSet.uwCadenceWeight )>> 12); // Q14
  295. /*初始化标志*/
  296. ass_stCalCoef.blAssistflag = FALSE;
  297. ass_stCalOut.swTorAssistSum1 = 0;
  298. ass_stCalOut.swTorAssistSum2 = 0;
  299. ass_stCalOut.swTorAss2CurrentTemp = 0;
  300. ass_stCalOut.swCadAss2CurrentTemp = 0;
  301. ass_stCalOut.swTorAssistCurrentTemp = 0;
  302. ass_stCalOut.swTorSpdLoopCurrentTemp = 0;
  303. ass_stCalOut.swTorAssistCurrent = 0;
  304. ass_stCalOut.swSpeedRef = 0;
  305. ass_stCalOut.swCadSpd2MotSpd = 0;
  306. ass_stCurLimCoef.uwLimitGain[0] = 0; // Q10 percentage of max Current
  307. ass_stCurLimCoef.uwLimitGain[1] = 400;
  308. ass_stCurLimCoef.uwLimitGain[2] = 682;
  309. ass_stCurLimCoef.uwLimitGain[3] = 910;
  310. ass_stCurLimCoef.uwLimitGain[4] = 1024;
  311. ass_stCurLimCoef.uwLimitGain[5] = 1024;
  312. ass_stCurLimCoef.uwSpdThresHold = 21845;
  313. /*设置车速限幅*/
  314. ass_stCurLimCoef.uwBikeSpdThresHold1 = (UWORD)(((UQWORD)1000 << 20) * ass_stParaSet.uwAssistLimitBikeSpdStart /
  315. ((UQWORD)36 * (ass_stParaCong.uwWheelPerimeter + (UWORD)ass_stParaCong.swDeltPerimeter) * FBASE)); // Q20 3216 = Q10(3.1415926)
  316. ass_stCurLimCoef.uwBikeSpdThresHold2 = (UWORD)(((UQWORD)1000 << 20) * ass_stParaSet.uwAssistLimitBikeSpdStop /
  317. ((UQWORD)36 * (ass_stParaCong.uwWheelPerimeter + (UWORD)ass_stParaCong.swDeltPerimeter) * FBASE)); // Q20 3216 = Q10(3.1415926)
  318. ass_stCurLimCoef.ulBikeSpdDeltInv = (ULONG)(((UQWORD)1 << 20) / (ass_stCurLimCoef.uwBikeSpdThresHold2 - ass_stCurLimCoef.uwBikeSpdThresHold1)); // Q20;
  319. ass_stCurLimCoef.uwBikeSpdIqLimitK =
  320. (UWORD)((((ULONG)ass_stCurLimCoef.uwBikeSpdThresHold2 - ass_stCurLimCoef.uwBikeSpdThresHold1) << 8) / ass_stParaCong.uwCofCurMaxPu); // Q28-q14 = Q14;
  321. /*设置转矩电流标定系数*/
  322. ass_Tor2CurCalCoef.uwMotorFluxWb = cp_stMotorPara.swFluxWb; // 0.001mWb
  323. ass_Tor2CurCalCoef.uwMotprPolePairs = ass_stParaCong.uwMotorPoles;
  324. ass_Tor2CurCalCoef.swCalCoefINV =
  325. (((SLONG)1 << 7) * 1000 * 1000) /
  326. (((SLONG)3 * ass_Tor2CurCalCoef.uwMotorFluxWb * ass_Tor2CurCalCoef.uwMotprPolePairs) >> 1); // Q7 Not Pu // 1/(1.5p*fai);
  327. mth_voLPFilterCoef(1000000 / 25, EVENT_1MS_HZ, &ass_pvt_stCurLpf.uwKx); //100Hz
  328. ass_pvt_stCurLpf.slY.sl = 0;
  329. }
  330. /**
  331. * @brief Three order polynomial Y = a*X^3 + b*X^2 + c*x +d
  332. *
  333. * @param coef polynomial coefficient a, b, c, d
  334. * @param Value polynomial input value X
  335. * @param Qnum polynomial input Q type
  336. * @return UWORD polynomial output Y
  337. */
  338. //void ass_voAssitTorqPIInit(void)
  339. //{
  340. // ass_stTorqPIOut.slIRefPu = 0;
  341. // ass_stTorqPIOut.swErrZ1Pu = 0;
  342. // ass_stTorqPIOut.swIRefPu = 0;
  343. //}
  344. //
  345. //void ass_voAssitTorqPI(const ASS_TORQ_PI_IN *in, ASS_TORQ_PI_OUT *out)
  346. //{
  347. // SLONG slErrPu, slDeltaErrPu;
  348. // SLONG slIpPu, slIiPu;
  349. // SLONG slImaxPu, slIminPu;
  350. // SQWORD sqIRefPu, sqIpPu;
  351. // UWORD uwKpPu = 5000, uwKitPu = 0; // uwKpPu(Q12), uwKitPu(Q15)
  352. //
  353. //// uwKpPu = ass_stParaSet.uwSpeedAssistIMaxA;
  354. //// uwKitPu = ass_stParaSet.uwStartUpCadNm;
  355. //
  356. // slImaxPu = (SLONG)in->swImaxPu << 15; // Q14+Q15=Q29
  357. // slIminPu = (SLONG)in->swIminPu << 15; // Q14+Q15=Q29
  358. //
  359. // slErrPu = in->swTorqRefPu - in->swTorqFdbPu; // Q14
  360. //
  361. // if (slErrPu > 32767)
  362. // {
  363. // slErrPu = 32767;
  364. // }
  365. // else if (slErrPu < -32768)
  366. // {
  367. // slErrPu = -32768;
  368. // }
  369. // else
  370. // {
  371. // /* Nothing */
  372. // }
  373. // //slDeltaErrPu = slErrPu - out->swErrZ1Pu; // Q14
  374. // slDeltaErrPu = slErrPu;
  375. // if (slDeltaErrPu > 32767)
  376. // {
  377. // slDeltaErrPu = 32767;
  378. // }
  379. // else if (slDeltaErrPu < -32768)
  380. // {
  381. // slDeltaErrPu = -32768;
  382. // }
  383. // else
  384. // {
  385. // /* Nothing */
  386. // }
  387. //
  388. // slIpPu = slDeltaErrPu * uwKpPu; // Q14+Q12=Q26
  389. // sqIpPu = (SQWORD)slIpPu << 3;
  390. //
  391. // slIiPu = slErrPu * uwKitPu; // Q14+Q15=Q29
  392. //
  393. // //sqIRefPu = sqIpPu + (SQWORD)slIiPu + (SQWORD)out->slIRefPu; // Q29
  394. // sqIRefPu = sqIpPu;
  395. //
  396. // if (sqIRefPu > slImaxPu)
  397. // {
  398. // out->slIRefPu = slImaxPu;
  399. // }
  400. // else if (sqIRefPu < slIminPu)
  401. // {
  402. // out->slIRefPu = slIminPu;
  403. // }
  404. // else
  405. // {
  406. // out->slIRefPu = sqIRefPu;
  407. // }
  408. // out->swIRefPu = out->slIRefPu >> 15; // Q29-Q15=Q14
  409. // out->swErrZ1Pu = (SWORD)slErrPu;
  410. //}
  411. static SWORD ass_pvt_swVoltCnt=0;
  412. static UWORD ass_pvt_uwTorqAccCnt=0,ass_pvt_uwTorqDecCnt=0,ass_pvt_uwSpd2TorqCnt=0;
  413. UWORD AssCnt1ms;
  414. static void AssitCuvApplPerVolt(void) /* parasoft-suppress METRICS-28 "本项目圈复杂度无法更改,后续避免" */
  415. {
  416. SLONG slTeTorAssitTmpPu,slTeTorAssitLinerPu,slTeCadAssitTmpPu;
  417. SWORD swTeTorAssitPu1, swTeTorAssitPu2;
  418. SWORD swTeCadAssitPu1, swTeCadAssitPu2;
  419. SWORD swTmpSpdtoTorqCur;
  420. SLONG slTmpSmoothCur;
  421. SWORD swTorqCmd1, swTorqCmd, swCadCmd;
  422. UWORD uwTorqAccStep = 50,uwTorqDecStep = 80;
  423. SWORD swCurSwitch = 0;
  424. SWORD swTmpVoltPu,swTmpVoltPu2;
  425. SLONG slSpdErr,slTmpVoltLim;
  426. SWORD swSpdKpPu = 500; //Q10
  427. UWORD uwVoltAccStep = 1, uwVoltDecStep = 3;
  428. UWORD uwTmpStopCnt = 0;
  429. // SLONG slTmp_a1, slTmp_b1, slTmp_c1;
  430. /* Select Torq Growth Rate by Bike Gear */
  431. if (ass_stCalIn.uwGearSt == 1)
  432. {
  433. uwTorqAccStep = 50;
  434. }
  435. else if(ass_stCalIn.uwGearSt == 2)
  436. {
  437. uwTorqAccStep = 100;
  438. }
  439. else if(ass_stCalIn.uwGearSt == 3)
  440. {
  441. uwTorqAccStep = 120;
  442. }
  443. else if(ass_stCalIn.uwGearSt == 4)
  444. {
  445. uwTorqAccStep = 150;
  446. }
  447. else if(ass_stCalIn.uwGearSt == 5)
  448. {
  449. uwTorqAccStep = 150;
  450. }
  451. else
  452. {
  453. //do nothing
  454. }
  455. uwTorqDecStep = 80;
  456. AssCnt1ms ++;
  457. if(AssCnt1ms >= 10000)
  458. {
  459. AssCnt1ms = 0;
  460. }
  461. /* Select TorqRef: LPFTorq or MAFTorq */
  462. swTorqCmd1 = (SWORD)(((SLONG)ass_stCalIn.uwtorque * ass_stCalCoef.swTorqFilterGain >> 14) +
  463. ((SLONG)ass_stCalIn.uwtorquelpf * (Q14_1 - ass_stCalCoef.swTorqFilterGain) >> 14)); //转矩指令滤波切换,由低通滤波到踏频相关的滑动平均滤波
  464. swTorqCmd = (SWORD)(((SLONG)swTorqCmd1 * ass_stCalCoef.swSmoothGain) >> 12); //转矩指令斜坡
  465. if (swTorqCmd > ass_stParaCong.uwBikeAssTorMaxPu) // 最大转矩限幅
  466. {
  467. swTorqCmd = (SWORD)ass_stParaCong.uwBikeAssTorMaxPu;
  468. }
  469. /* Assist torque Cal using Assist Curve */
  470. slTeTorAssitTmpPu = (SLONG)(ass_slPolynomial(&ass_stCalCoef.uwTorqueAssGain[ass_stCalIn.uwGearSt], &swTorqCmd, 14)); // Q14 转矩助力曲线
  471. if(ass_stCalIn.uwGearSt == 5)
  472. {
  473. slTeTorAssitLinerPu = (((SLONG)swTorqCmd * LinerAssist[ass_stCalIn.uwGearSt-1] )>> 12) + 273; // Q14 转矩助力曲线线性段
  474. }
  475. else
  476. {
  477. slTeTorAssitLinerPu = (((SLONG)swTorqCmd * LinerAssist[ass_stCalIn.uwGearSt-1] )>> 12) + 273;
  478. }
  479. if (slTeTorAssitTmpPu < slTeTorAssitLinerPu)
  480. {
  481. slTeTorAssitTmpPu = slTeTorAssitLinerPu;
  482. }
  483. else
  484. {
  485. //do nothing;
  486. }
  487. swCadCmd = (SWORD)((((SLONG)ass_stCalIn.uwcadance * ass_stCalCoef.swSmoothGain) >> 12) * 10); // 踏频指令斜坡
  488. slTeCadAssitTmpPu = ((SLONG)(ass_slPolynomial(&ass_stCalCoef.uwCadencAsseGain[ass_stCalIn.uwGearSt], &swCadCmd, 20))) >> 6; // Q20 - Q6 = Q14 //踏频助力曲线
  489. if (slTeTorAssitTmpPu > ass_stParaCong.uwBikeAssTorMaxPu) // 最大转矩限幅
  490. {
  491. slTeTorAssitTmpPu = ass_stParaCong.uwBikeAssTorMaxPu;
  492. }
  493. if (slTeCadAssitTmpPu > ass_stParaCong.uwBikeAssTorMaxPu) // 最大转矩限幅
  494. {
  495. slTeCadAssitTmpPu = ass_stParaCong.uwBikeAssTorMaxPu;
  496. }
  497. /* Select Assist Percent of Torq and Candence*/
  498. swTeTorAssitPu1 = (SWORD)(slTeTorAssitTmpPu * (SLONG)ass_stParaSet.uwTorAssAjstGain >> 12); // Q14+Q12-Q12 = Q14; 用户可设置转矩比例
  499. swTeCadAssitPu1 = (SWORD)(slTeCadAssitTmpPu * (SLONG)ass_stParaSet.uwCadenceAssAjstGain >> 12); // Q14+Q12-Q12 = Q14; 用户可设置踏频比例
  500. ass_stCalOut.swTorAssistSum1 = swTeTorAssitPu1 + swTeCadAssitPu1; // Q14
  501. /* Candance Speed to Motor Speed*/
  502. ass_stCalOut.swCadSpd2MotSpd =
  503. (SWORD)(((SLONG)ass_stCalIn.uwcadance * (SWORD)ass_stParaCong.uwMechRationMotor * (SWORD)ass_stParaCong.uwMotorPoles) >> 5); // Q20-Q5= Q15 出力时电机转速计算
  504. ass_stCalCoef.uwCadencePeriodCNT = (UWORD)(TIME_MS2CNT(((ULONG)1000 << 20) / ((ULONG)ass_stCalIn.uwcadance * FBASE))); //一圈踏频时间计数
  505. /* Back EMF Cal */
  506. swTmpVoltPu = (SWORD)((SLONG)ass_stCalOut.swCadSpd2MotSpd * (SLONG)cof_uwFluxPu >> 13);//Q15+Q12-Q13=Q14;
  507. swTmpVoltPu2 = (SWORD)((SLONG)ass_stCalIn.uwSpdFbkAbsPu* (SLONG)cof_uwFluxPu >> 13);//Q15+Q12-Q13=Q14;
  508. if (swTmpVoltPu < swTmpVoltPu2)
  509. {
  510. swTmpVoltPu = swTmpVoltPu2;
  511. }
  512. ass_stCalCoef.uwStartupGain = ass_stParaSet.uwStartupCoef ; //零速启动助力比计算
  513. ass_stCalCoef.uwStartupCruiseGain = ass_stParaSet.uwStartupCruiseCoef ; //带速启动助力比计算
  514. /* Assist FSM Control */
  515. switch (Ass_FSM)
  516. {
  517. case Startup:
  518. // ass_stCalCoef.swSmoothGain = Q12_1;
  519. ass_stCalCoef.swSmoothGain += (SWORD)ass_stParaSet.uwSpeedAssistIMaxA; ////ass_stCalCoef.uwStartUpGainAddStep;
  520. if(ass_stCalCoef.swSmoothGain >= Q12_1)
  521. {
  522. ass_stCalCoef.swSmoothGain = Q12_1;
  523. }
  524. swSpdKpPu = 2000; //ass_stParaSet.uwStartUpCadNm;
  525. slSpdErr = (SLONG)ass_stCalOut.swCadSpd2MotSpd - (SLONG)ass_stCalIn.uwSpdFbkAbsPu;
  526. if(slSpdErr < 0)
  527. {
  528. slSpdErr = 0;
  529. }
  530. // ass_stCalCoef.StartFlag = 1;
  531. /* Open Voltage Limit according SpdErr*/
  532. if(ass_stCalCoef.StartFlag == 0)
  533. {
  534. slTmpVoltLim= ((slSpdErr * swSpdKpPu )>> 11) + swTmpVoltPu;
  535. if(slTmpVoltLim > scm_swVsDcpLimPu)
  536. {
  537. slTmpVoltLim = scm_swVsDcpLimPu;
  538. }
  539. else if(slTmpVoltLim <= swTmpVoltPu)
  540. {
  541. slTmpVoltLim = swTmpVoltPu;
  542. }
  543. else
  544. {
  545. //do nothing
  546. }
  547. ass_stCalOut.swVoltLimitPu = (SWORD)slTmpVoltLim;
  548. // if(slSpdErr <= 1000)
  549. // {
  550. // ass_stCalCoef.StartFlag = 1;
  551. // }
  552. if(ABS(scm_swIqRefPu- scm_swIqFdbLpfPu) > 200)
  553. {
  554. ass_pvt_swVoltCnt++;
  555. }
  556. else
  557. {
  558. ass_pvt_swVoltCnt=0;
  559. }
  560. if(ass_pvt_swVoltCnt > 10)
  561. {
  562. ass_pvt_swVoltCnt=0;
  563. ass_stCalCoef.StartFlag = 1;
  564. }
  565. }
  566. else if(ass_stCalCoef.StartFlag ==1 )
  567. {
  568. if(0 == (AssCnt1ms%5))
  569. {
  570. ass_stCalOut.swVoltLimitPu += ass_stCalCoef.uwStartUpGainAddStep;
  571. if (ass_stCalOut.swVoltLimitPu > scm_swVsDcpLimPu)
  572. {
  573. ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  574. }
  575. }
  576. if(slSpdErr <= 100)
  577. {
  578. ass_pvt_swVoltCnt++;
  579. }
  580. else
  581. {
  582. ass_pvt_swVoltCnt--;
  583. if(ass_pvt_swVoltCnt < 0)
  584. {
  585. ass_pvt_swVoltCnt = 0;
  586. }
  587. }
  588. /* Switch to TorqueAssit FSM */
  589. if(ass_pvt_swVoltCnt > 30)
  590. {
  591. Ass_FSM = TorqueAssit;
  592. ass_stCalCoef.StartFlag=0;
  593. ass_pvt_swVoltCnt=0;
  594. }
  595. }
  596. else
  597. {
  598. //do nothing
  599. }
  600. /* Switch to ReduceCurrent FSM */
  601. if((ass_stCalIn.uwcadancePer == 0) || (ass_stCalIn.uwGearSt == 0) || BikeBrake_blGetstate() == TRUE)
  602. {
  603. /* When CandanceFreq=0 or BikeGear=0*/
  604. ass_stCalCoef.swAss2SpdCNT = 0;
  605. Ass_FSM = ReduceCurrent;
  606. }
  607. else if(ass_stCalIn.uwtorquePer <= (ass_stCalCoef.uwAssStopThreshold))
  608. {
  609. ass_stCalCoef.swAss2SpdCNT++;
  610. uwTmpStopCnt = ass_stCalIn.uwcadance;//((ULONG)1000<<20)/(ass_CalIn.uwcadance * FBASE) ;
  611. if(uwTmpStopCnt < 200)
  612. {
  613. uwTmpStopCnt = 200;
  614. }
  615. else if(uwTmpStopCnt > 500)
  616. {
  617. uwTmpStopCnt = 500;
  618. }
  619. else
  620. {
  621. //do nothing
  622. }
  623. if(ass_stCalCoef.swAss2SpdCNT > uwTmpStopCnt)
  624. {
  625. ass_stCalCoef.swAss2SpdCNT = 0;
  626. Ass_FSM = ReduceCurrent;
  627. }
  628. }
  629. else
  630. {
  631. ass_stCalCoef.swAss2SpdCNT = 0;
  632. }
  633. break;
  634. case TorqueAssit:
  635. /* 启动系数 */
  636. ass_stCalCoef.swSmoothGain += (SWORD)ass_stParaSet.uwSpeedAssistIMaxA; ////ass_stCalCoef.uwStartUpGainAddStep;
  637. if(ass_stCalCoef.swSmoothGain >= Q12_1)
  638. {
  639. ass_stCalCoef.swSmoothGain = Q12_1;
  640. }
  641. /* Reduce Voltage Limit When LPFTorq < Switch1TorqThreshold */
  642. if(0 == (AssCnt1ms%5))
  643. {
  644. // if(ass_stCalIn.uwtorque >= ass_stCalCoef.uwSwitch1TorqThreshold)
  645. // {
  646. ass_stCalOut.swVoltLimitPu += ass_stCalCoef.uwStartUpGainAddStep;
  647. if (ass_stCalOut.swVoltLimitPu > scm_swVsDcpLimPu)
  648. {
  649. ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  650. }
  651. // }
  652. // else if (ass_stCalIn.uwtorque <= ass_stCalCoef.uwSwitch1TorqThreshold)
  653. // {
  654. //// ass_stCalOut.swVoltLimitPu -= ass_stCalCoef.uwSpeedConstantCommand;
  655. //// if (ass_stCalOut.swVoltLimitPu <= (tmpVoltargetPu + ass_ParaSet.uwStartUpCadNm))
  656. //// {
  657. //// ass_stCalOut.swVoltLimitPu = tmpVoltargetPu + ass_ParaSet.uwStartUpCadNm;
  658. //// }
  659. // }
  660. // else
  661. // {
  662. // }
  663. }
  664. /* TorqueRef Select Coef */
  665. ass_stCalCoef.swTorqFilterGain += 4; // Q14 转矩滤波方式切换系数
  666. if (ass_stCalCoef.swTorqFilterGain > Q14_1)
  667. {
  668. ass_stCalCoef.swTorqFilterGain = Q14_1;
  669. }
  670. /* Switch to ReduceCurrent FSM */
  671. if((ass_stCalIn.uwcadancePer == 0) || (ass_stCalIn.uwGearSt == 0) || BikeBrake_blGetstate() == TRUE)
  672. {
  673. /* When CandanceFreq=0 or BikeGear=0*/
  674. ass_stCalOut.blTorqPIFlg = FALSE;
  675. ass_stCalCoef.swAss2SpdCNT = 0;
  676. Ass_FSM = ReduceCurrent;
  677. }
  678. else if(ass_stCalIn.uwtorquePer <= (ass_stCalCoef.uwAssStopThreshold))
  679. {
  680. ass_stCalCoef.swAss2SpdCNT++;
  681. uwTmpStopCnt = ass_stCalIn.uwcadance;//((ULONG)1000<<20)/(ass_CalIn.uwcadance * FBASE) ;
  682. if(uwTmpStopCnt < 200)
  683. {
  684. uwTmpStopCnt = 200;
  685. }
  686. else if(uwTmpStopCnt > 500)
  687. {
  688. uwTmpStopCnt = 500;
  689. }
  690. else
  691. {
  692. //do nothing
  693. }
  694. if(ass_stCalCoef.swAss2SpdCNT > uwTmpStopCnt)
  695. {
  696. ass_stCalCoef.swAss2SpdCNT = 0;
  697. ass_stCalOut.blTorqPIFlg = FALSE;
  698. Ass_FSM = ReduceCurrent;
  699. }
  700. }
  701. else
  702. {
  703. ass_stCalCoef.swAss2SpdCNT = 0;
  704. }
  705. break;
  706. case ReduceCurrent:
  707. /* Switch to StopAssit FSM */
  708. if(ass_stCalCoef.swSmoothGain <= 0)
  709. {
  710. ass_stCalCoef.swSmoothGain = 0;
  711. ass_stCalCoef.swTorqFilterGain = 0;
  712. ass_stCalCoef.swCadanceGain = 0;
  713. Ass_FSM = StopAssit;
  714. }
  715. else
  716. {
  717. /* Reduce Curret Coef to Zero*/
  718. ass_stCalCoef.swSmoothGain -=40;
  719. ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  720. }
  721. /* Switch to Startup FSM */
  722. // if (ass_stCalIn.uwtorquePer > ((ass_stCalCoef.uwAssThreshold * 3)>>3) && ass_stCalIn.uwcadance > 0)
  723. // {
  724. // Ass_FSM = Startup;
  725. // ass_stCalOut.swSpeedRef = ass_stCalIn.uwSpdFbkAbsPu;
  726. // ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  727. // }
  728. break;
  729. case StopAssit:
  730. ass_stCalOut.swTorSpdLoopCurrentTemp = 0;
  731. /* Switch to Startup FSM */
  732. if ((BikeBrake_blGetstate() == FALSE) && (ass_stCalIn.uwGearSt > 0))
  733. {
  734. if (ass_stCalIn.uwbikespeed < 449) // 0.3Hz, (2.19m轮径下 2.36km/h )
  735. {
  736. if (ass_stCalIn.uwtorquePer > ass_stCalCoef.uwAssThreshold && ass_stCalIn.uwcadance > 0)
  737. {
  738. ass_stCalCoef.sw2StopCNT = 0;
  739. ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  740. ass_pvt_stCurLpf.slY.sw.hi = 0;
  741. Ass_FSM = Startup;
  742. }
  743. }
  744. else
  745. {
  746. if (ass_stCalIn.uwtorquelpf > ((ass_stCalCoef.uwAssThreshold * 3)>>3) && ass_stCalIn.uwtorquePer > ass_stCalCoef.uwAssThreshold && ass_stCalIn.uwcadance > 0)
  747. {
  748. ass_stCalCoef.sw2StopCNT = 0;
  749. ass_stCalOut.swVoltLimitPu = scm_swVsDcpLimPu;
  750. ass_pvt_stCurLpf.slY.sw.hi = 0;
  751. Ass_FSM = Startup;
  752. }
  753. }
  754. }
  755. /* Assit Exit */
  756. if (ass_stCalIn.uwcadance == 0 || ass_stCalIn.uwtorquelpf < ass_stCalCoef.uwAssStopThreshold)
  757. {
  758. ass_stCalCoef.sw2StopCNT++;
  759. }
  760. else
  761. {
  762. if (ass_stCalCoef.sw2StopCNT >= 1)
  763. {
  764. ass_stCalCoef.sw2StopCNT--;
  765. }
  766. }
  767. if ((ass_stCalCoef.sw2StopCNT > TIME_MS2CNT(3000)) || (ass_stCalIn.uwGearSt == 0) || (BikeBrake_blGetstate() == TRUE))// 3s
  768. {
  769. ass_stCalCoef.sw2StopCNT = 0;
  770. ass_stCalCoef.blAssistflag = FALSE;
  771. }
  772. break;
  773. default:
  774. break;
  775. }
  776. /* Bikespeed Limit */
  777. if (ass_stCalIn.uwbikespeed <= ass_stCurLimCoef.uwBikeSpdThresHold1)
  778. {
  779. ass_stCalCoef.swBikeSpeedGain = Q12_1; // Q12
  780. }
  781. else if (ass_stCalIn.uwbikespeed > ass_stCurLimCoef.uwBikeSpdThresHold1 && ass_stCalIn.uwbikespeed <= ass_stCurLimCoef.uwBikeSpdThresHold2)
  782. {
  783. ass_stCalCoef.swBikeSpeedGain =
  784. (SWORD)(Q12_1 - ((((SQWORD)ass_stCalIn.uwbikespeed - (SQWORD)ass_stCurLimCoef.uwBikeSpdThresHold1) * (SQWORD)ass_stCurLimCoef.ulBikeSpdDeltInv) >> 8)); // Q12
  785. uwTorqAccStep = 10;
  786. uwTorqDecStep = 10;
  787. }
  788. else
  789. {
  790. ass_stCalCoef.swBikeSpeedGain = 0;
  791. uwTorqAccStep = 10;
  792. uwTorqDecStep = 10;
  793. }
  794. /* Assist Current Output in each FSM */
  795. switch (Ass_FSM)
  796. {
  797. case Startup:
  798. swTeTorAssitPu2 = swTeTorAssitPu1 ; // Q14+Q12-Q12+Q12-Q12=Q14
  799. swTeCadAssitPu2 = swTeCadAssitPu1 ; // Q14+Q12-Q12+Q12-Q12=Q14
  800. ass_stCalOut.swTorAss2CurrentTemp = ass_swTorq2CurPu(swTeTorAssitPu2); // Q14 电流指令计算
  801. ass_stCalOut.swCadAss2CurrentTemp = ass_swTorq2CurPu(swTeCadAssitPu2); // Q14 电流指令计算
  802. if (ass_stCalOut.swTorAss2CurrentTemp > ass_stCalCoef.swCurrentmax_torAssPu)
  803. {
  804. ass_stCalOut.swTorAss2CurrentTemp = ass_stCalCoef.swCurrentmax_torAssPu;
  805. }
  806. if (ass_stCalOut.swCadAss2CurrentTemp > ass_stCalCoef.swCurrentmax_cadAssPu)
  807. {
  808. ass_stCalOut.swCadAss2CurrentTemp = ass_stCalCoef.swCurrentmax_cadAssPu;
  809. }
  810. ass_stCalOut.swTorRefTarget = ass_stCalOut.swTorAss2CurrentTemp + ass_stCalOut.swCadAss2CurrentTemp;
  811. ass_stCalOut.swTorRefEnd = ass_stCalOut.swTorRefTarget;
  812. ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection *ass_stCalOut.swTorRefEnd;
  813. break;
  814. case TorqueAssit:
  815. swTeTorAssitPu2 = swTeTorAssitPu1 ; // Q14+Q12-Q12+Q12-Q12=Q14
  816. swTeCadAssitPu2 = swTeCadAssitPu1 ; // Q14+Q12-Q12+Q12-Q12=Q14
  817. ass_stCalOut.swTorAss2CurrentTemp = ass_swTorq2CurPu(swTeTorAssitPu2); // Q14 电流指令计算
  818. ass_stCalOut.swCadAss2CurrentTemp = ass_swTorq2CurPu(swTeCadAssitPu2); // Q14 电流指令计算
  819. if (ass_stCalOut.swTorAss2CurrentTemp > ass_stCalCoef.swCurrentmax_torAssPu)
  820. {
  821. ass_stCalOut.swTorAss2CurrentTemp = ass_stCalCoef.swCurrentmax_torAssPu;
  822. }
  823. if (ass_stCalOut.swCadAss2CurrentTemp > ass_stCalCoef.swCurrentmax_cadAssPu)
  824. {
  825. ass_stCalOut.swCadAss2CurrentTemp = ass_stCalCoef.swCurrentmax_cadAssPu;
  826. }
  827. #if CURSWITCH
  828. /* Ajust CurrentRef growth and decline rate */
  829. ass_stCalOut.swTorRefTarget = ass_stCalOut.swTorAss2CurrentTemp + ass_stCalOut.swCadAss2CurrentTemp;
  830. if((ass_stCalOut.swTorRefTarget - ass_stCalOut.swTorRefEnd) > 2)
  831. {
  832. ass_pvt_uwTorqAccCnt++;
  833. if(ass_pvt_uwTorqAccCnt >= 2)
  834. {
  835. ass_stCalOut.swTorRefEnd += (SWORD)uwTorqAccStep;
  836. ass_pvt_uwTorqAccCnt = 0;
  837. }
  838. }
  839. else if((ass_stCalOut.swTorRefTarget - ass_stCalOut.swTorRefEnd) < -1)
  840. {
  841. if (ass_stCalIn.uwcadance != ass_stCalIn.uwcadancelast)
  842. {
  843. ass_stCalOut.swTorRefEnd -= (SWORD)uwTorqDecStep;
  844. }
  845. // ass_pvt_uwTorqDecCnt++;
  846. // if(ass_pvt_uwTorqDecCnt >= 10)
  847. // {
  848. // ass_stCalOut.swTorRefEnd += uwTorqAccStep;
  849. // ass_pvt_uwTorqDecCnt = 0;
  850. // }
  851. }
  852. else
  853. {
  854. ass_stCalOut.swTorRefEnd = ass_stCalOut.swTorRefTarget;
  855. }
  856. ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection * ass_stCalOut.swTorRefEnd;
  857. /* Torq Clzloop Test */
  858. // if(ass_stCalIn.uwtorquelpf <= ass_stCalCoef.uwSwitch1TorqThreshold)
  859. // {
  860. // if(!ass_stCalOut.blTorqPIFlg)
  861. // {
  862. // /* Initial value */
  863. // ass_stTorqPIOut.slIRefPu = 0;
  864. // swCurSwitch = ABS(ass_stCalOut.swTorRefTarget); //ABS(ass_stCalOut.swAssitCurRef);
  865. // ass_stCalOut.blTorqPIFlg = TRUE;
  866. // }
  867. //
  868. // ass_stTorqPIIn.swTorqRefPu = ass_stCalIn.uwtorquelpf ; //torsensor_test_Lpf.slY.sw.hi ; //ass_stCalIn.uwtorque;
  869. // ass_stTorqPIIn.swTorqFdbPu = ass_stCalCoef.uwSwitch1TorqThreshold;
  870. // ass_stTorqPIIn.swImaxPu = 0;
  871. // ass_stTorqPIIn.swIminPu = -swCurSwitch;
  872. // ass_voAssitTorqPI(&ass_stTorqPIIn,&ass_stTorqPIOut);
  873. // ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection *(swCurSwitch + ass_stUqLimMafValue.slAverValue);
  874. // }
  875. // else
  876. // {
  877. // ass_stCalOut.blTorqPIFlg = FALSE;
  878. // ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection * ass_stCalOut.swTorRefEnd;
  879. // }
  880. #else
  881. ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection *(ass_stCalOut.swTorAss2CurrentTemp + ass_stCalOut.swCadAss2CurrentTemp);
  882. #endif
  883. break;
  884. case ReduceCurrent:
  885. swTeTorAssitPu2 = swTeTorAssitPu1; // Q14+Q12-Q12+Q12-Q12=Q14
  886. swTeCadAssitPu2 = swTeCadAssitPu1; // Q14+Q12-Q12+Q12-Q12=Q14
  887. ass_stCalOut.swTorAss2CurrentTemp = ass_swTorq2CurPu(swTeTorAssitPu2); // Q14 电流指令计算
  888. ass_stCalOut.swCadAss2CurrentTemp = ass_swTorq2CurPu(swTeCadAssitPu2); // Q14 电流指令计算
  889. if (ass_stCalOut.swTorAss2CurrentTemp > ass_stCalCoef.swCurrentmax_torAssPu)
  890. {
  891. ass_stCalOut.swTorAss2CurrentTemp = ass_stCalCoef.swCurrentmax_torAssPu;
  892. }
  893. if (ass_stCalOut.swCadAss2CurrentTemp > ass_stCalCoef.swCurrentmax_cadAssPu)
  894. {
  895. ass_stCalOut.swCadAss2CurrentTemp = ass_stCalCoef.swCurrentmax_cadAssPu;
  896. }
  897. ass_stCalOut.swTorAssistCurrentTemp = ass_stCalIn.swDirection *(ass_stCalOut.swTorAss2CurrentTemp + ass_stCalOut.swCadAss2CurrentTemp);
  898. break;
  899. case StopAssit:
  900. ass_stCalOut.swTorAssistCurrentTemp = 0;
  901. ass_stCalOut.swTorRefEnd = 0;
  902. break;
  903. default:
  904. break;
  905. }
  906. /* Assist Iqref Output */
  907. ass_stCalOut.swTorAssistCurrent = ass_stCalOut.swTorAssistCurrentTemp;
  908. mth_voLPFilter(ass_stCalOut.swTorAssistCurrent, &ass_pvt_stCurLpf);
  909. /* Bikespeed Limit Coef*/
  910. ass_stCalOut.swAssitCurRef = (SWORD)((SLONG)ass_pvt_stCurLpf.slY.sw.hi * ass_stCalCoef.swBikeSpeedGain >> 12);
  911. //ass_stCalOut.swAssitCurRef =ass_stCalOut.swTorAssistCurrent;
  912. }
  913. /**
  914. * @brief Three order polynomial Y = a*X^3 + b*X^2 + c*x +d
  915. *
  916. * @param coef polynomial coefficient a, b, c, d
  917. * @param Value polynomial input value X
  918. * @param Qnum polynomial input Q type
  919. * @return UWORD polynomial output Y
  920. */
  921. static void ass_voAssitCurLim(UWORD gear, UWORD uwBikeSpeedHzPu, UWORD uwCurMaxPu)
  922. {
  923. /* Limit the Output Current according to Bike Gear */
  924. UWORD uwIqLimitTemp1;
  925. if(gear > 5)
  926. {
  927. gear = 5;
  928. }
  929. uwIqLimitTemp1 = (UWORD)(((ULONG)ass_stCurLimCoef.uwLimitGain[gear] * uwCurMaxPu) >> 10);
  930. ass_stCurLimOut.uwIqlimit = uwIqLimitTemp1;
  931. }
  932. /**
  933. * @brief
  934. *
  935. * @param
  936. * @return
  937. */
  938. static void ass_voAssistCurLimBMS(UWORD uwSOCvalue)
  939. {
  940. /* Limit the Output Current according to Bike SOC */
  941. if (uwSOCvalue < ass_stCurLimCalBMSCoef.uwIqLimitStartSoc && uwSOCvalue > ass_stCurLimCalBMSCoef.uwIqLimitEndSoc)
  942. {
  943. ass_stCurLimitCalBMSOut.uwIqLimitAbs =
  944. ass_stCurLimCalBMSCoef.uwIqLimitInitAbs - ((ass_stCurLimCalBMSCoef.uwIqLimitStartSoc - uwSOCvalue) * ass_stCurLimCalBMSCoef.swIqLImitK);
  945. }
  946. else if (uwSOCvalue <= ass_stCurLimCalBMSCoef.uwIqLimitEndSoc)
  947. {
  948. ass_stCurLimitCalBMSOut.uwIqLimitAbs = 0;
  949. }
  950. else
  951. {
  952. ass_stCurLimitCalBMSOut.uwIqLimitAbs = ass_stCurLimCalBMSCoef.uwIqLimitInitAbs;
  953. }
  954. }
  955. /**
  956. * @brief Assist function
  957. *
  958. * @param coef polynomial coefficient a, b, c, d
  959. * @param Value polynomial input value X
  960. * @param Qnum polynomial input Q type
  961. * @return UWORD polynomial output Y
  962. */
  963. void ass_voAssist(void)
  964. {
  965. /* Start Assist Jduge */
  966. if ((ass_stCalIn.uwtorquePer > ass_stCalCoef.uwAssThreshold && ass_stCalIn.uwcadancePer > 0) && (ass_stCalIn.uwGearSt > 0 && ass_stCalIn.uwGearSt != 0x22))
  967. {
  968. ass_stCalCoef.blAssistflag = TRUE;
  969. }
  970. if (ass_stCalCoef.blAssistflag == TRUE)
  971. {
  972. /* Calculate Iqref Limit */
  973. UWORD uwIqLimitTemp;
  974. ass_voAssitCurLim(ass_stCalIn.uwGearSt, ass_stCalIn.uwbikespeed, ass_stParaCong.uwCofCurMaxPu);
  975. ass_voAssistCurLimBMS(ass_stCalIn.SOCValue);
  976. uwIqLimitTemp = (ass_stCurLimOut.uwIqlimit < ass_stCalIn.swFlxIqLimit)
  977. ? (ass_stCurLimOut.uwIqlimit < ass_stCalIn.swPwrIqLimit ? ass_stCurLimOut.uwIqlimit : ass_stCalIn.swPwrIqLimit)
  978. : (ass_stCalIn.swFlxIqLimit < ass_stCalIn.swPwrIqLimit ? ass_stCalIn.swFlxIqLimit : ass_stCalIn.swPwrIqLimit);
  979. ass_stCalCoef.uwCurrentMaxPu = (uwIqLimitTemp < ass_stCurLimitCalBMSOut.uwIqLimitAbs) ? uwIqLimitTemp : ass_stCurLimitCalBMSOut.uwIqLimitAbs;
  980. ass_stCalCoef.swCurrentmax_torAssPu = (SWORD)(((SLONG)ass_stCalCoef.uwCurrentMaxPu * (SWORD)ass_stParaSet.uwTorWeight) >> 12); // Q14
  981. ass_stCalCoef.swCurrentmax_cadAssPu = (SWORD)(((SLONG)ass_stCalCoef.uwCurrentMaxPu * (SWORD)ass_stParaSet.uwCadenceWeight) >> 12);
  982. /* Calculate Assist Current, Iqref*/
  983. AssitCuvApplPerVolt();
  984. /* Iqref Limit */
  985. if (ass_stCalOut.swAssitCurRef > (SWORD)ass_stCalCoef.uwCurrentMaxPu)
  986. {
  987. ass_stCalOut.swAssitCurRef = (SWORD)ass_stCalCoef.uwCurrentMaxPu;
  988. }
  989. else if(ass_stCalOut.swAssitCurRef < -(SWORD)ass_stCalCoef.uwCurrentMaxPu)
  990. {
  991. ass_stCalOut.swAssitCurRef = -(SWORD)ass_stCalCoef.uwCurrentMaxPu;
  992. }
  993. else
  994. {
  995. //do nothing
  996. }
  997. }
  998. else
  999. {
  1000. ass_stCalOut.swAssitCurRef = 0;
  1001. }
  1002. }
  1003. /**
  1004. * @brief
  1005. *
  1006. * @param
  1007. * @return
  1008. */
  1009. void ass_voMoveAverageFilter(MAF_IN *in)
  1010. {
  1011. in->slSum -= in->swBuffer[in->uwIndex];
  1012. in->swBuffer[in->uwIndex] = in->swValue;
  1013. in->slSum += (SLONG)in->swValue;
  1014. if (!in->blSecFlag)
  1015. {
  1016. in->slAverValue = in->slSum / ((SLONG)in->uwIndex + (SWORD)1);
  1017. }
  1018. else
  1019. {
  1020. in->slAverValue = in->slSum / (SLONG)in->uwLength;
  1021. }
  1022. in->uwIndex++;
  1023. if (in->uwIndex >= in->uwLength)
  1024. {
  1025. in->blSecFlag = TRUE;
  1026. in->uwIndex = 0;
  1027. }
  1028. }
  1029. void ass_voMoveAverageFilterClear(MAF_IN *in)
  1030. {
  1031. UWORD i;
  1032. in->uwIndex = 0;
  1033. in->slSum = 0;
  1034. in->blSecFlag = FALSE;
  1035. for (i = 0; i < 64; i++)
  1036. {
  1037. in->swBuffer[i] = 0;
  1038. }
  1039. }