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简陋检验，几种充电状态的切换

This commit is contained in:
起床就犯困 2024-08-23 16:50:34 +08:00
parent b7e1572375
commit de2f325604
26 changed files with 12497 additions and 8790 deletions
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4
App/inc/mppt_control.h
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@ -19,8 +19,7 @@ typedef struct _SL_Mppt_para{
uint16_t Battery_Voltage; /* µç³Øµçѹ */ uint16_t Battery_Voltage; /* µç³Øµçѹ */
uint16_t Battery_temperature; /* µç³ØÎÂ¶È */ uint16_t Battery_temperature; /* µç³ØÎÂ¶È */
uint16_t Remaining_Battery_Bower; /* µç³ØÊ£ÓàµçÁ¿ */ uint16_t Remaining_Battery_Bower; /* µç³ØÊ£ÓàµçÁ¿ */
uint16_t Solar_Open_Circuit_Voltage1; /* 太阳能开路电压1 */ uint16_t Solar_Open_Circuit_Voltage; /* 太阳能开路电压 */
uint16_t Solar_Open_Circuit_Voltage2; /* 太阳能开路电压2 */
}SL_Mppt_para; }SL_Mppt_para;
extern SL_Mppt_para g_Mppt_Para; extern SL_Mppt_para g_Mppt_Para;
#pragma pack(pop) #pragma pack(pop)
@ -48,5 +47,6 @@ void mppt_readJust(void);
void MpptMode(void); void MpptMode(void);
void mppt_constantVoltage(float InVoltage); void mppt_constantVoltage(float InVoltage);
void test(void); void test(void);
void printf_data(void);
#endif /* APP_INC_MPPT_CONTROL_H_ */ #endif /* APP_INC_MPPT_CONTROL_H_ */

4
App/inc/task.h
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@ -17,7 +17,7 @@
extern STR_TimeSliceOffset m_runled; extern STR_TimeSliceOffset m_runled;
void Task_RunLED(void); void Task_RunLED(void);
#define mpptControl_reloadVal 2000 /* 任务执行间隔 */ #define mpptControl_reloadVal 10 /* 任务执行间隔 */
#define mpptControl_offset 0 /* 任务执行偏移量 */ #define mpptControl_offset 0 /* 任务执行偏移量 */
extern STR_TimeSliceOffset m_mpptControl; extern STR_TimeSliceOffset m_mpptControl;
void Task_mpptControl(void); void Task_mpptControl(void);
@ -47,7 +47,7 @@ extern uint8_t g_recvBroadcastRegisterNumber; /*
extern STR_TimeSliceOffset m_recvbroadcast; extern STR_TimeSliceOffset m_recvbroadcast;
void Task_recvbroadcast(void); void Task_recvbroadcast(void);
#define EnPowerSupply_reloadVal 100 /* 任务执行间隔 */ #define EnPowerSupply_reloadVal 1000 /* 任务执行间隔 */
#define EnPowerSupply_offset 0 /* 任务执行偏移量 */ #define EnPowerSupply_offset 0 /* 任务执行偏移量 */
extern STR_TimeSliceOffset m_EnPowerSupply; extern STR_TimeSliceOffset m_EnPowerSupply;
extern void Task_EnPowerSupply(void); extern void Task_EnPowerSupply(void);

8
App/src/collect_Conversion.c
View File

@ -21,7 +21,7 @@
#define MOSFET_Temper ADC_Channel_6 #define MOSFET_Temper ADC_Channel_6
#define PV2_VOLT_IN ADC_Channel_7 #define PV2_VOLT_IN ADC_Channel_7
#define enable_Printf_VI //#define enable_Printf_VI
/* 光伏充电输出电流比例，放大倍数*电阻 */ /* 光伏充电输出电流比例，放大倍数*电阻 */
const float P_CHG_CURR = (1.0 / (50 * 0.005)); const float P_CHG_CURR = (1.0 / (50 * 0.005));
@ -30,9 +30,9 @@ const float P_PV_VOLT_OUT = (47.0 + 10.0) / 10.0;
/* 放电电流采集电流倍数 */ /* 放电电流采集电流倍数 */
const float P_DSG_CURR = (1.0 / (50 * 0.005)); const float P_DSG_CURR = (1.0 / (50 * 0.005));
///* 光伏1开路输出电压比例 */ ///* 光伏1开路输出电压比例 */
//const float P_PV1_VOLT_IN = (100 + 4.7) / 4.7; const float P_PV1_VOLT_IN = (100 + 4.7) / 4.7;
/* 光伏1开路输出电压比例 */ /* 光伏1开路输出电压比例 */
const float P_PV1_VOLT_IN = (47 + 4.7) / 4.7; //const float P_PV1_VOLT_IN = (47 + 4.7) / 4.7;
/* 系统电源电压比例 */ /* 系统电源电压比例 */
const float P_PV_VOLT_IN1 = (47 + 4.7) / 4.7; const float P_PV_VOLT_IN1 = (47 + 4.7) / 4.7;
/* 温度采集比例 */ /* 温度采集比例 */
@ -166,7 +166,7 @@ float get_DSG_CURR(void)
I_ADC = Get_ConversionVal(get_adc(DSG_CURR)); I_ADC = Get_ConversionVal(get_adc(DSG_CURR));
// I_ADC = get_adc(DSG_CURR); // I_ADC = get_adc(DSG_CURR);
I = (float)(I_ADC) / 4095 * 3.3 * P_DSG_CURR; I = (float)(I_ADC) / 4095 * 3.3 * P_DSG_CURR * 2;
#ifdef enable_Printf_VI #ifdef enable_Printf_VI
printf("\n DSG_CURR ADC : %d \n", I_ADC); printf("\n DSG_CURR ADC : %d \n", I_ADC);

8
App/src/inflash.c
View File

@ -16,10 +16,10 @@ config_info g_slConfigInfo = {
.Communication_Methods = RS485, .Communication_Methods = RS485,
.bat485_Baud = 9600, .bat485_Baud = 9600,
.gw485_Baud = 9600, .gw485_Baud = 9600,
.ConstantCurrentV = 1030, .ConstantCurrentV = 1100,
.ConstantCurrentV = 1300, .ConstantVoltageV = 1400,
.FloatI = 10, .FloatI = 50,
.startSolarOpenCircuitV = 1800, .startSolarOpenCircuitV = 1600,
}; };

229
App/src/mppt_control.c
View File

@ -24,7 +24,7 @@ static void FloatingCharge(void);
/* 占空比 */ /* 占空比 */
float g_duty_ratio = 0.7; float g_duty_ratio = 0.7;
/* 用于确定工作模式 */ /* 用于确定工作模式 */
static uint8_t modeFlag = 0; static uint8_t modeFlag = 2;
/** /**
* @brief 得到输出的功率 * @brief 得到输出的功率
@ -137,13 +137,16 @@ void mppt_readJust(void)
void printf_data(void) void printf_data(void)
{ {
printf("\n"); printf("\n");
get_CHG_CURR(); // get_CHG_CURR();
get_PV_VOLT_OUT(); // get_PV_VOLT_OUT();
get_DSG_CURR(); // get_DSG_CURR();
// get_PV1_VOLT_IN(); // get_PV1_VOLT_IN();
get_PV_VOLT_IN1(); // get_PV_VOLT_IN1();
get_MOSFET_Temper(); // get_MOSFET_Temper();
get_PV2_VOLT_IN(); // get_PV2_VOLT_IN();
printf("1. 涓流模式; 2. 恒流模式; 3, 恒压模式; 4, 浮充模式modeFlag : %d \n", modeFlag);
printf("\n"); printf("\n");
} }
@ -184,22 +187,23 @@ void mppt_constantVoltage(float InVoltage)
// } // }
// } // }
static float_t kp = 0.05; static float_t kp = 0.005;
static float_t ki = 0.0001; static float_t ki = 0.00001;
// static float_t allError = 0; // static float_t allError = 0;
// float_t error = (get_PV1_VOLT_IN()) - InVoltage; // float_t error = (get_PV1_VOLT_IN()) - InVoltage;
// float_t error = InVoltage - (get_PV2_VOLT_IN()); // float_t error = InVoltage - (get_PV2_VOLT_IN());
// allError += error; // allError += error;
float_t pv1Volt = get_PV2_VOLT_IN(); float_t pv1Volt = get_PV1_VOLT_IN();
float_t error = pv1Volt - InVoltage; float_t error = pv1Volt - InVoltage;
// float_t error = InVoltage - pv1Volt; // float_t error = InVoltage - pv1Volt;
float_t stepPwm = kp * error + ki * pv1Volt; float_t stepPwm = kp * error + ki * pv1Volt;
g_duty_ratio += stepPwm; g_duty_ratio += stepPwm;
// printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000)); // printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000));
// printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000));
// printf("g_duty_ratio : %d/10000 \n", (int)(g_duty_ratio * 10000));
Set_duty_ratio(&g_duty_ratio); Set_duty_ratio(&g_duty_ratio);
} }
@ -243,6 +247,8 @@ void mppt_constantVoltageO(float OutVoltage)
static float_t kp = 0.02; static float_t kp = 0.02;
static float_t ki = 0.00001; static float_t ki = 0.00001;
// static float_t kp = 0.1;
// static float_t ki = 0.001;
float_t outVolt = get_PV_VOLT_OUT(); float_t outVolt = get_PV_VOLT_OUT();
// float_t error = outVolt - OutVoltage; // float_t error = outVolt - OutVoltage;
@ -250,8 +256,7 @@ void mppt_constantVoltageO(float OutVoltage)
float_t stepPwm = kp * error + ki * outVolt; float_t stepPwm = kp * error + ki * outVolt;
g_duty_ratio += stepPwm; g_duty_ratio += stepPwm;
printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000)); // printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000));
Set_duty_ratio(&g_duty_ratio); Set_duty_ratio(&g_duty_ratio);
@ -296,24 +301,43 @@ void mppt_constantCurrentO(float outCurrent)
// } // }
// } // }
static float_t kp = 0.01; static float_t kp = 0.005;
static float_t ki = 0.0001; static float_t ki = 0.00005;
// static float_t last_CHG_CURR = 0; // static float_t last_CHG_CURR = 0;
// static float_t flag = 0; // static float_t flag = 1;
// static float_t last_OutputPower = 0;
float_t outCurr = get_CHG_CURR(); float_t outCurr = get_CHG_CURR();
// float_t OutputPower = outCurr * get_PV_VOLT_OUT();
float_t error = outCurrent - outCurr; float_t error = outCurrent - outCurr;
// float_t error = outCurr - outCurrent; // float_t error = outCurr - outCurrent;
float_t stepPwm = kp * error + ki * outCurr; float_t stepPwm = kp * error + ki * outCurr;
// if ((last_CHG_CURR > outCurr) && flag) { // if (flag) {
// g_duty_ratio -= stepPwm; // if (OutputPower > last_OutputPower) {
// g_duty_ratio += stepPwm;
// flag = 1;
// } else { // } else {
g_duty_ratio += stepPwm; // g_duty_ratio -= stepPwm;
// flag = 0;
// } // }
// } else {
// if (OutputPower > last_OutputPower) {
// g_duty_ratio -= stepPwm;
// flag = 0;
// } else {
// g_duty_ratio += stepPwm;
// flag = 1;
// }
// }
//
// last_OutputPower = OutputPower;
printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000)); g_duty_ratio += stepPwm;
// printf("setPwm : %d/10000 \n", (int)(stepPwm * 10000));
// printf("g_duty_ratio : %d/10000 \n", (int)(g_duty_ratio * 10000));
Set_duty_ratio(&g_duty_ratio); Set_duty_ratio(&g_duty_ratio);
@ -333,7 +357,7 @@ void mppt_constantCurrentO(float outCurrent)
*/ */
void TrickleCharge(void) void TrickleCharge(void)
{ {
mppt_constantCurrentO(0.7); mppt_constantCurrentO(1);
} }
/** /**
@ -344,7 +368,9 @@ void TrickleCharge(void)
*/ */
void ConstantCurrentCharge(void) void ConstantCurrentCharge(void)
{ {
mppt_readJust(); // mppt_readJust();
mppt_constantVoltage(18);
} }
/** /**
@ -355,7 +381,12 @@ void ConstantCurrentCharge(void)
*/ */
void ConstantVoltageCharge(void) void ConstantVoltageCharge(void)
{ {
mppt_constantVoltage(17.5); // mppt_constantVoltage(17.5);
// mppt_constantVoltageO((float_t)g_Mppt_Para.Battery_Voltage);
mppt_constantVoltageO(14.5);
// g_duty_ratio = 0.9;
// Set_duty_ratio(&g_duty_ratio);
} }
/** /**
@ -366,39 +397,57 @@ void ConstantVoltageCharge(void)
*/ */
void FloatingCharge(void) void FloatingCharge(void)
{ {
static uint8_t run_num; // static uint32_t run_num;
if (get_CHG_CURR() > 0.1) { // if (get_CHG_CURR() > 0.01) {
mppt_constantVoltageO(12); // mppt_constantVoltageO(12);
if (run_num++ > 100) { // if (run_num++ > 100) {
if ((get_PV_VOLT_OUT()) < 14) { // if ((get_PV_VOLT_OUT()) < 14) {
run_num = 0; // run_num = 0;
modeFlag = CONSTANTVOLTAGE; // modeFlag = CONSTANTVOLTAGE;
return; // return;
} // }
} // }
} // }
//
// else {
// TIM_SetCompare4(TIM4, 0);
// if (run_num++) {
// if ((get_PV_VOLT_OUT()) < 14) {
// run_num = 0;
// modeFlag = CONSTANTVOLTAGE;
// return;
// }
// }
//
// if (run_num > 100) {
// run_num = 0;
// modeFlag = CONSTANTVOLTAGE;
// return;
// }
// }
//
// if (run_num > 200) {
// run_num = 100;
// }
else { static uint32_t num = 0;
TIM_SetCompare4(TIM4, 0); TIM_SetCompare4(TIM4, 0);
if (run_num++) { // mppt_constantVoltageO(12);
if ((get_PV_VOLT_OUT()) < 14) {
run_num = 0; if (500 == num++) {
// if ((get_PV_VOLT_OUT()) > 13.5) {
num = 0;
modeFlag = CONSTANTVOLTAGE; modeFlag = CONSTANTVOLTAGE;
return; // return;
} // }
} }
if (run_num > 100) { // if ((get_PV_VOLT_OUT()) > 13.5) {
run_num = 0; // modeFlag = CONSTANTVOLTAGE;
modeFlag = CONSTANTVOLTAGE; // return;
return; // }
}
}
if (run_num > 200) {
run_num = 100;
}
} }
@ -428,40 +477,70 @@ void MpptContorl(void)
void MpptMode(void) void MpptMode(void)
{ {
static uint8_t temp_flag = 1; // static uint8_t temp_flag = 1;
static float ConstantCurrentV; // static float ConstantCurrentV;
static float ConstantVoltageV; // static float ConstantVoltageV;
static float FloatI; // static float FloatI;
/* ¸³Öµ½öÖ´ÐÐÒ»´Î */ // /* 赋值仅执行一次 */
if (temp_flag) { // if (temp_flag) {
ConstantCurrentV = (float)g_slConfigInfo.ConstantCurrentV / 100; // ConstantCurrentV = (float)g_slConfigInfo.ConstantCurrentV / 100;
ConstantVoltageV = (float)g_slConfigInfo.ConstantVoltageV / 100; // ConstantVoltageV = (float)g_slConfigInfo.ConstantVoltageV / 100;
FloatI = (float)g_slConfigInfo.FloatI / 100; // FloatI = (float)g_slConfigInfo.FloatI / 100;
temp_flag = 0; // temp_flag = 0;
} //// printf("g_slConfigInfo.ConstantCurrentV : %d g_slConfigInfo.ConstantVoltageV : %d /100 \n", g_slConfigInfo.ConstantCurrentV, g_slConfigInfo.ConstantVoltageV);
//// printf("ConstantCurrentV : %d /100 ConstantVoltageV : %d /100 \n", (int)ConstantCurrentV, (int)ConstantVoltageV);
// }
if ((ConstantCurrentV < g_Mppt_Para.Battery_Voltage) && printf("vout : %d /100 \n", g_Mppt_Para.Battery_Voltage);
(ConstantVoltageV > g_Mppt_Para.Battery_Voltage)) { printf("iout : %d /1000 \n", (int)(get_CHG_CURR() * 1000));
modeFlag = CONSTANTCURRENT; printf("in checkSolarOpenCircuitVoltage v: %d/100 \n", g_Mppt_Para.Solar_Open_Circuit_Voltage);
return; // printf("ConstantCurrentV : %d ConstantVoltageV : %d \n", (int)ConstantCurrentV, (int)ConstantVoltageV);
}
if (!(ConstantVoltageV > g_Mppt_Para.Battery_Voltage) && // if (((ConstantVoltageV < (float)g_Mppt_Para.Battery_Voltage / 100) &&
(FloatI < get_CHG_CURR())) { // (FloatI > get_CHG_CURR())) || modeFlag == FLOAT) {
modeFlag = CONSTANTVOLTAGE; // modeFlag = FLOAT;
return; // return;
} // }
//
// if ((ConstantCurrentV < (float)g_Mppt_Para.Battery_Voltage / 100) &&
// (ConstantVoltageV >= (float)g_Mppt_Para.Battery_Voltage / 100)) {
// modeFlag = CONSTANTCURRENT;
// return;
// }
//
// if ((ConstantVoltageV < (float)g_Mppt_Para.Battery_Voltage / 100) &&
// (FloatI <= get_CHG_CURR())) {
// modeFlag = CONSTANTVOLTAGE;
// return;
// }
if ((!(ConstantVoltageV > g_Mppt_Para.Battery_Voltage) && if (((14.3 < (float)g_Mppt_Para.Battery_Voltage / 100) &&
(FloatI > get_CHG_CURR())) || modeFlag == FLOAT) { (0.08 > get_CHG_CURR())) || modeFlag == FLOAT) {
modeFlag = FLOAT; modeFlag = FLOAT;
return; return;
} }
if ((13 < (float)g_Mppt_Para.Battery_Voltage / 100) &&
(13.8 >= (float)g_Mppt_Para.Battery_Voltage / 100)) {
modeFlag = CONSTANTCURRENT;
return;
}
if ((14.3 < (float)g_Mppt_Para.Battery_Voltage / 100) &&
(0.2 <= get_CHG_CURR())) {
modeFlag = CONSTANTVOLTAGE;
return;
}
if (12.5 > (float)g_Mppt_Para.Battery_Voltage / 100) {
modeFlag = TRICKLE; modeFlag = TRICKLE;
return; return;
} }
// modeFlag = CONSTANTCURRENT;
// return;
}
void findMiNDutyRatio(void) void findMiNDutyRatio(void)
{ {
static uint8_t num = 100; static uint8_t num = 100;
@ -488,11 +567,13 @@ void test(void)
// printf_data(); // printf_data();
// void MpptContorl(); // void MpptContorl();
// mppt_constantVoltageO(13); // mppt_constantVoltageO(12);
// FloatingCharge(); // FloatingCharge();
// mppt_readJust(); // mppt_readJust();
// mppt_constantCurrentO(1.0); // mppt_constantCurrentO(1);
MpptContorl();
// static uint32_t run_num = 0; // static uint32_t run_num = 0;
// if (1000 < run_num++) { // if (1000 < run_num++) {

38
App/src/sl_protocol.c
View File

@ -30,8 +30,8 @@ static uint16_t SL_ReadRegisterCommunicationMethods(void *pMsg);
static uint16_t SL_ReadRegisterBatteryVoltage(void *pMsg); static uint16_t SL_ReadRegisterBatteryVoltage(void *pMsg);
static uint16_t SL_ReadRegisterBatterytemperature(void *pMsg); static uint16_t SL_ReadRegisterBatterytemperature(void *pMsg);
static uint16_t SL_ReadRegisterRemainingBatteryBower(void *pMsg); static uint16_t SL_ReadRegisterRemainingBatteryBower(void *pMsg);
static uint16_t SL_ReadRegisterSolarOpenCircuitVoltage1(void *pMsg); static uint16_t SL_ReadRegisterSolarOpenCircuitVoltage(void *pMsg);
static uint16_t SL_ReadRegisterSolarOpenCircuitVoltage2(void *pMsg); //static uint16_t SL_ReadRegisterSolarOpenCircuitVoltage2(void *pMsg);
//static uint16_t SL_WriteRegisterRegistrationStatus(void *pMsg); //static uint16_t SL_WriteRegisterRegistrationStatus(void *pMsg);
//static uint16_t SL_WriteRegisteraddress(void *pMsg); //static uint16_t SL_WriteRegisteraddress(void *pMsg);
@ -82,8 +82,8 @@ SL_RegProcTable g_RegTblR[] =
{SL_Register_Battery_Voltage, SL_ReadRegisterBatteryVoltage}, {SL_Register_Battery_Voltage, SL_ReadRegisterBatteryVoltage},
{SL_Register_Battery_temperature, SL_ReadRegisterBatterytemperature}, {SL_Register_Battery_temperature, SL_ReadRegisterBatterytemperature},
{SL_Register_Remaining_Battery_Bower, SL_ReadRegisterRemainingBatteryBower}, {SL_Register_Remaining_Battery_Bower, SL_ReadRegisterRemainingBatteryBower},
{SL_Register_Solar_Open_Circuit_Voltage1, SL_ReadRegisterSolarOpenCircuitVoltage1}, {SL_Register_Solar_Open_Circuit_Voltage1, SL_ReadRegisterSolarOpenCircuitVoltage},
{SL_Register_Solar_Open_Circuit_Voltage2, SL_ReadRegisterSolarOpenCircuitVoltage2}, // {SL_Register_Solar_Open_Circuit_Voltage2, SL_ReadRegisterSolarOpenCircuitVoltage2},
}; };
/* 寄存器处理表 */ /* 寄存器处理表 */
@ -508,24 +508,24 @@ uint16_t SL_ReadRegisterRemainingBatteryBower(void *pMsg)
* @param * @param
* @retval * @retval
*/ */
uint16_t SL_ReadRegisterSolarOpenCircuitVoltage1(void *pMsg) uint16_t SL_ReadRegisterSolarOpenCircuitVoltage(void *pMsg)
{ {
log_info(" SL_ReadRegisterSolarOpenCircuitVoltage1 "); log_info(" SL_ReadRegisterSolarOpenCircuitVoltage1 ");
uint16_t value = (uint16_t)g_Mppt_Para.Solar_Open_Circuit_Voltage1 * 10; uint16_t value = (uint16_t)g_Mppt_Para.Solar_Open_Circuit_Voltage * 10;
return value;
}
/**
* @brief 读取太阳能开路电压2寄存器
* @param
* @retval
*/
uint16_t SL_ReadRegisterSolarOpenCircuitVoltage2(void *pMsg)
{
log_info(" SL_ReadRegisterSolarOpenCircuitVoltage2 ");
uint16_t value = (uint16_t)g_Mppt_Para.Solar_Open_Circuit_Voltage2 * 10;
return value; return value;
} }
//
///**
// * @brief 读取太阳能开路电压2寄存器
// * @param
// * @retval
// */
//uint16_t SL_ReadRegisterSolarOpenCircuitVoltage2(void *pMsg)
//{
// log_info(" SL_ReadRegisterSolarOpenCircuitVoltage2 ");
// uint16_t value = (uint16_t)g_Mppt_Para.Solar_Open_Circuit_Voltage2 * 10;
// return value;
//}
///** ///**
// * @brief 写入注册状态寄存器 // * @brief 写入注册状态寄存器
@ -770,7 +770,7 @@ static int uart_read_climate_pack(device_handle uart_handle,uint8_t *buff, uint3
} }
if ((offset == 14) && (pack->function_Code == SL_Function_Code_Write_Register)) { if ((pack->function_Code == SL_Function_Code_Write_Register) && (offset >= 14)) {
SL_Mppt_Worecv_pack *wpack = (SL_Mppt_Worecv_pack *)buff; SL_Mppt_Worecv_pack *wpack = (SL_Mppt_Worecv_pack *)buff;
uint8_t Register_Number = (wpack->write_Register_Number_H << 8) | wpack->write_Register_Number_L; uint8_t Register_Number = (wpack->write_Register_Number_H << 8) | wpack->write_Register_Number_L;
len = Register_Number * 2 + SL_MPPT_WORECV_PACK_SIZE - 4; len = Register_Number * 2 + SL_MPPT_WORECV_PACK_SIZE - 4;

111
App/src/task.c
View File

@ -33,7 +33,10 @@ void Task_RunLED(void)
// uart_sendstr(g_gw485_uart4_handle, "\n\n\n\n\n"); // uart_sendstr(g_gw485_uart4_handle, "\n\n\n\n\n");
// uart_sendstr(g_gw485_uart4_handle, "is gw485\n"); // uart_sendstr(g_gw485_uart4_handle, "is gw485\n");
// uart_sendstr(g_bat485_uart3_handle, "is bat485\n"); // uart_sendstr(g_bat485_uart3_handle, "is bat485\n");
// printf("duty_ratio : %d/1000 \n", (int)(g_duty_ratio * 1000)); printf("duty_ratio : %d/1000 \n", (int)(g_duty_ratio * 1000));
printf_data();
// get_CHG_CURR();
static uint8_t flag = RESET; static uint8_t flag = RESET;
flag = !flag; flag = !flag;
@ -50,7 +53,7 @@ void Task_RunLED(void)
STR_TimeSliceOffset m_mpptControl; STR_TimeSliceOffset m_mpptControl;
void Task_mpptControl(void) void Task_mpptControl(void)
{ {
// test(); test();
// static uint8_t test_flag = 0; // static uint8_t test_flag = 0;
// if (5 == ++test_flag) { // if (5 == ++test_flag) {
@ -102,8 +105,9 @@ void Task_wdi(void)
* @retval * @retval
*/ */
#define checkRemainingBatteryBower 30 //电池剩余电量30s刷新一次 #define checkRemainingBatteryBower 30 //电池剩余电量30s刷新一次
#define checkSolarOpenCircuitVoltage 1800 //太阳能板开路电压30min刷新一次 //#define checkSolarOpenCircuitVoltage 1800 //太阳能板开路电压30min刷新一次
#define mpptmodedelay 60 //mppt工作模式60s刷新一次（小于1000S） #define checkSolarOpenCircuitVoltage 100 //太阳能板开路电压刷新一次
#define mpptmodedelay 1 //mppt工作模式60s刷新一次（小于1000S）
//#define checkSolarOpenCircuitDelay 500 //检测太阳能板开路电压时，关闭太阳能板的延时时间 //#define checkSolarOpenCircuitDelay 500 //检测太阳能板开路电压时，关闭太阳能板的延时时间
STR_TimeSliceOffset m_refreshRegister; STR_TimeSliceOffset m_refreshRegister;
void Task_refreshRegister(void) void Task_refreshRegister(void)
@ -114,9 +118,9 @@ void Task_refreshRegister(void)
static uint32_t opencheckFlag = 0; static uint32_t opencheckFlag = 0;
static uint32_t mpptModeFlag = mpptmodedelay -1; static uint32_t mpptModeFlag = mpptmodedelay -1;
/* 后续可以添加考虑减少放电电流的影响 */ // g_Mppt_Para.Battery_Voltage = 0;
g_Mppt_Para.Battery_Voltage = 0;
g_Mppt_Para.Battery_temperature = 0; g_Mppt_Para.Battery_temperature = 0;
g_Mppt_Para.Battery_Voltage = (uint16_t)(get_PV_VOLT_OUT() * 100);
if (checkRemainingBatteryBower == ++checkFlagTemp1) { if (checkRemainingBatteryBower == ++checkFlagTemp1) {
g_Mppt_Para.Remaining_Battery_Bower = 0; g_Mppt_Para.Remaining_Battery_Bower = 0;
@ -124,43 +128,72 @@ void Task_refreshRegister(void)
} }
if (checkSolarOpenCircuitVoltage == ++checkFlagTemp2 || (opencheckFlag && ++checkFlagTemp2)) { if (checkSolarOpenCircuitVoltage == ++checkFlagTemp2 || (opencheckFlag && ++checkFlagTemp2)) {
if (!opencheckFlag) {
Set_duty_ratio(0);
// printf("in checkSolarOpenCircuitVoltage \n");
if (!opencheckFlag) {
TIM_SetCompare4(TIM4, 0);
opencheckFlag = 1; opencheckFlag = 1;
checkFlagTemp2 = 0; checkFlagTemp2 = 0;
} }
else { else {
GPIO_WriteBit(G_FFMOS_CON1_GPIO, G_FFMOS_CON1_PIN, SET); // GPIO_WriteBit(G_FFMOS_CON1_GPIO, G_FFMOS_CON1_PIN, SET);
GPIO_WriteBit(G_FFMOS_CON2_GPIO, G_FFMOS_CON2_PIN, SET); // GPIO_WriteBit(G_FFMOS_CON2_GPIO, G_FFMOS_CON2_PIN, SET);
g_Mppt_Para.Solar_Open_Circuit_Voltage1 = get_PV1_VOLT_IN(); // g_Mppt_Para.Solar_Open_Circuit_Voltage1 = get_PV1_VOLT_IN();
g_Mppt_Para.Solar_Open_Circuit_Voltage2 = get_PV2_VOLT_IN(); // g_Mppt_Para.Solar_Open_Circuit_Voltage2 = get_PV2_VOLT_IN();
GPIO_WriteBit(G_FFMOS_CON1_GPIO, G_FFMOS_CON1_PIN, RESET); // GPIO_WriteBit(G_FFMOS_CON1_GPIO, G_FFMOS_CON1_PIN, RESET);
GPIO_WriteBit(G_FFMOS_CON2_GPIO, G_FFMOS_CON2_PIN, RESET); // GPIO_WriteBit(G_FFMOS_CON2_GPIO, G_FFMOS_CON2_PIN, RESET);
// opencheckFlag = 0;
//
// if ((g_Mppt_Para.Solar_Open_Circuit_Voltage1
// > g_slConfigInfo.startSolarOpenCircuitV)
// || (g_Mppt_Para.Solar_Open_Circuit_Voltage2
// > g_slConfigInfo.startSolarOpenCircuitV)) {
// TimeSliceOffset_Register(&m_mpptControl, Task_mpptControl
// , mpptControl_reloadVal, mpptControl_offset);
// mpptModeFlag = 0;
// Set_duty_ratio(&g_duty_ratio);
// } else {
// TimeSliceOffset_Unregister(&m_mpptControl);
// mpptModeFlag = 100;
// }
g_Mppt_Para.Solar_Open_Circuit_Voltage = (uint16_t)(get_PV1_VOLT_IN() * 100);
opencheckFlag = 0; opencheckFlag = 0;
if ((g_Mppt_Para.Solar_Open_Circuit_Voltage1 // printf("in checkSolarOpenCircuitVoltage v: %d/100 \n", g_Mppt_Para.Solar_Open_Circuit_Voltage1);
> g_slConfigInfo.startSolarOpenCircuitV)
|| (g_Mppt_Para.Solar_Open_Circuit_Voltage2 if (g_Mppt_Para.Solar_Open_Circuit_Voltage
> g_slConfigInfo.startSolarOpenCircuitV)) { > g_slConfigInfo.startSolarOpenCircuitV) {
TimeSliceOffset_Register(&m_mpptControl, Task_mpptControl // TimeSliceOffset_Register(&m_mpptControl, Task_mpptControl
, mpptControl_reloadVal, mpptControl_offset); // , mpptControl_reloadVal, mpptControl_offset);
mpptModeFlag = 0; mpptModeFlag = 0;
TIM_Cmd(TIM3, ENABLE);
Set_duty_ratio(&g_duty_ratio); Set_duty_ratio(&g_duty_ratio);
} else { } else {
TimeSliceOffset_Unregister(&m_mpptControl); // TimeSliceOffset_Unregister(&m_mpptControl);
TIM_Cmd(TIM3, DISABLE);
TIM_SetCompare4(TIM4, 0);
mpptModeFlag = 100; mpptModeFlag = 100;
} }
} }
} }
// if (mpptModeFlag != 100) {
// if (mpptmodedelay == ++mpptModeFlag) {
//// printf("vout : %d /100", g_Mppt_Para.Battery_Voltage);
// MpptMode();
// mpptModeFlag = 0;
// }
// }
if (mpptModeFlag != 100) { if (mpptModeFlag != 100) {
if (mpptmodedelay == ++mpptModeFlag) { // printf("vout : %d /100", g_Mppt_Para.Battery_Voltage);
MpptMode(); MpptMode();
mpptModeFlag = 0;
}
} }
// MpptMode();
return; return;
} }
@ -264,12 +297,12 @@ void Task_recvbroadcast(void)
STR_TimeSliceOffset m_EnPowerSupply; STR_TimeSliceOffset m_EnPowerSupply;
void Task_EnPowerSupply(void) void Task_EnPowerSupply(void)
{ {
if (get_PV_VOLT_IN1() > 17 - 0.4) { if (get_PV_VOLT_IN1() > 16.0) {
GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, SET);
return;
} else if (get_PV_VOLT_IN1() < 14 - 0.4) {
GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, RESET); GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, RESET);
return; return;
} else if (get_PV_VOLT_IN1() < 14.5) {
GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, SET);
return;
} }
return; return;
} }
@ -294,8 +327,8 @@ void g_Mppt_Para_Init(void)
g_Mppt_Para.Battery_Voltage = 0; g_Mppt_Para.Battery_Voltage = 0;
g_Mppt_Para.Battery_temperature = 0; g_Mppt_Para.Battery_temperature = 0;
g_Mppt_Para.Remaining_Battery_Bower = 0; g_Mppt_Para.Remaining_Battery_Bower = 0;
g_Mppt_Para.Solar_Open_Circuit_Voltage1 = 0; g_Mppt_Para.Solar_Open_Circuit_Voltage = 0;
g_Mppt_Para.Solar_Open_Circuit_Voltage2 = 0; // g_Mppt_Para.Solar_Open_Circuit_Voltage2 = 0;
} }
/** /**
@ -305,25 +338,26 @@ void g_Mppt_Para_Init(void)
*/ */
void task_Init(void) void task_Init(void)
{ {
read_config_info(); // read_config_info();
g_Mppt_Para_Init(); g_Mppt_Para_Init();
TimeSliceOffset_Register(&m_runled, Task_RunLED, runled_reloadVal, runled_offset); TimeSliceOffset_Register(&m_runled, Task_RunLED, runled_reloadVal, runled_offset);
// m_refreshRegister.runFlag = 1; /* 该启动后立即执行一次 */ // m_refreshRegister.runFlag = 1; /* 该启动后立即执行一次 */
// TimeSliceOffset_Register(&m_refreshRegister, Task_refreshRegister TimeSliceOffset_Register(&m_refreshRegister, Task_refreshRegister
// , refreshRegister_reloadVal, refreshRegister_offset); , refreshRegister_reloadVal, refreshRegister_offset);
// TimeSliceOffset_Register(&m_mpptControl, Task_mpptControl // TimeSliceOffset_Register(&m_mpptControl, Task_mpptControl
// , mpptControl_reloadVal, mpptControl_offset); // , mpptControl_reloadVal, mpptControl_offset);
TimeSliceOffset_Register(&m_usart, Task_usart, usart_reloadVal, usart_offset); TimeSliceOffset_Register(&m_usart, Task_usart, usart_reloadVal, usart_offset);
// //
// TimeSliceOffset_Register(&m_wdi, Task_wdi, wdi_reloadVal, wdi_offset); TimeSliceOffset_Register(&m_wdi, Task_wdi, wdi_reloadVal, wdi_offset);
TimeSliceOffset_Register(&m_EnPowerSupply, Task_EnPowerSupply
, EnPowerSupply_reloadVal, EnPowerSupply_offset);
// TimeSliceOffset_Register(&m_EnPowerSupply, Task_EnPowerSupply
// , EnPowerSupply_reloadVal, EnPowerSupply_offset);
TimeSliceOffset_Start(); /* 启动时间片轮询 */ TimeSliceOffset_Start(); /* 启动时间片轮询 */
} }
@ -336,7 +370,7 @@ void task_Init(void)
*/ */
void hardware_Init(void) void hardware_Init(void)
{ {
TIM3_Init(); Systick_Init();
TIM2_Init(); TIM2_Init();
uart_dev_init(); uart_dev_init();
PWM_TIM_Configuration(); PWM_TIM_Configuration();
@ -353,10 +387,13 @@ void hardware_Init(void)
// GPIO_WriteBit(POW_OUT_CON_GPIO, POW_OUT_CON_PIN, SET); // GPIO_WriteBit(POW_OUT_CON_GPIO, POW_OUT_CON_PIN, SET);
// TIM_SetCompare4(TIM4, 5000); // TIM_SetCompare4(TIM4, 5000);
GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, RESET);
Set_duty_ratio(&g_duty_ratio); Set_duty_ratio(&g_duty_ratio);
// Set_duty_ratio(0); // Set_duty_ratio(0);
// Delay_Ms(100); // Delay_Ms(100);
// TIM_SetCompare2(TIM4, 50); // TIM_SetCompare2(TIM4, 50);
// TIM1_Init(20);
TIM3_Init(5);
} }

2
Hardware/inc/gpio.h
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@ -63,7 +63,7 @@ void DSG_PROT_Init(void);
/* ¸ø±Ãµç·µçÈݳäµç */ /* ¸ø±Ãµç·µçÈݳäµç */
/* EnPowerSupply --> PB7 */ /* EnPowerSupply --> PB7 */
#define EnPowerSupply_GPIO GPIOB #define EnPowerSupply_GPIO GPIOB
#define EnPowerSupply_PIN GPIO_Pin_7 #define EnPowerSupply_PIN GPIO_Pin_3
void EnPowerSupply_Init(void); void EnPowerSupply_Init(void);
#endif /* HARDWARE_INC_GPIO_H_ */ #endif /* HARDWARE_INC_GPIO_H_ */

7
Hardware/inc/tim.h
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@ -14,11 +14,16 @@
extern uint8_t run_Broadcast; extern uint8_t run_Broadcast;
void TIM3_Init(void); void TIM3_Init(uint16_t delay_ms);
void TIM3_Int_Init(uint16_t arr,uint16_t psc); void TIM3_Int_Init(uint16_t arr,uint16_t psc);
void TIM2_Init(void); void TIM2_Init(void);
void TIM2_Int_Init(uint16_t arr,uint16_t psc); void TIM2_Int_Init(uint16_t arr,uint16_t psc);
void Systick_Init(void);
void TIM1_Init(uint16_t delay_ms);
void TIM1_Int_Init(uint16_t arr,uint16_t psc);
#endif /* HARDWARE_INC_TIM_H_ */ #endif /* HARDWARE_INC_TIM_H_ */

4
Hardware/src/gpio.c
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@ -63,6 +63,8 @@ void POW_OUT_CON_Init(void)
GPIO_InitStructure.GPIO_Mode = GPIO_Mode_Out_PP; //ÍÆÍìÊä³ö GPIO_InitStructure.GPIO_Mode = GPIO_Mode_Out_PP; //ÍÆÍìÊä³ö
GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz; GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz;
GPIO_Init(POW_OUT_CON_GPIO, &GPIO_InitStructure); GPIO_Init(POW_OUT_CON_GPIO, &GPIO_InitStructure);
GPIO_WriteBit(POW_OUT_CON_GPIO, POW_OUT_CON_PIN, SET);
} }
void EXTI2_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast"))); void EXTI2_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast")));
@ -110,7 +112,7 @@ void EnPowerSupply_Init(void)
GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz; GPIO_InitStructure.GPIO_Speed = GPIO_Speed_50MHz;
GPIO_Init(EnPowerSupply_GPIO, &GPIO_InitStructure); GPIO_Init(EnPowerSupply_GPIO, &GPIO_InitStructure);
GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, RESET); GPIO_WriteBit(EnPowerSupply_GPIO, EnPowerSupply_PIN, SET);
} }

8
Hardware/src/pwm.c
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@ -57,12 +57,12 @@ void PWM_TIM_Configuration(void)
void Set_duty_ratio(float *duty_ratio) void Set_duty_ratio(float *duty_ratio)
{ {
if (*duty_ratio < 0.4) { if (*duty_ratio < 0.5) {
*duty_ratio = 0.4; *duty_ratio = 0.5;
return; // return;
} else if (*duty_ratio > 0.9) { } else if (*duty_ratio > 0.9) {
*duty_ratio = 0.9; *duty_ratio = 0.9;
return; // return;
} }
uint16_t pulse = *duty_ratio * (Period + 1); uint16_t pulse = *duty_ratio * (Period + 1);

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Hardware/src/tim.c
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@ -8,9 +8,7 @@
#include "tim.h" #include "tim.h"
#include "timeSliceOffset.h" #include "timeSliceOffset.h"
#include "pwm.h" #include "pwm.h"
#include "mppt_control.h"
/* 时间基准为1ms，1ms切换一次任务 */
#define delayms 1
/* 延时时间 */ /* 延时时间 */
#define delays 20 #define delays 20
@ -20,13 +18,18 @@ uint8_t run_Broadcast = 1;
void TIM3_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast"))); void TIM3_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast")));
void TIM2_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast"))); void TIM2_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast")));
void SysTick_Handler(void) __attribute__((interrupt("WCH-Interrupt-fast")));
void TIM3_Init(void) void TIM1_UP_IRQHandler(void) __attribute__((interrupt("WCH-Interrupt-fast")));
void TIM3_Init(uint16_t delay_ms)
{ {
/* 分频系数 */ /* 分频系数 */
uint16_t psc = (SystemCoreClock / 10000) - 1; uint16_t psc = (SystemCoreClock / 10000) - 1;
/* 分频系数 */ /* 分频系数 */
uint16_t arr = delayms * 10 - 1; uint16_t arr = delay_ms * 10 - 1;
TIM3_Int_Init(arr, psc); TIM3_Int_Init(arr, psc);
} }
@ -49,11 +52,11 @@ void TIM3_Int_Init(uint16_t arr, uint16_t psc)
//初始化TIM NVIC，设置中断优先级分组 //初始化TIM NVIC，设置中断优先级分组
NVIC_InitStructure.NVIC_IRQChannel = TIM3_IRQn; //TIM3中断 NVIC_InitStructure.NVIC_IRQChannel = TIM3_IRQn; //TIM3中断
NVIC_InitStructure.NVIC_IRQChannelPreemptionPriority = 0; //设置抢占优先级0 NVIC_InitStructure.NVIC_IRQChannelPreemptionPriority = 0; //设置抢占优先级0
NVIC_InitStructure.NVIC_IRQChannelSubPriority = 3; //设置响应优先级3 NVIC_InitStructure.NVIC_IRQChannelSubPriority = 1; //设置响应优先级3
NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE; //使能通道1中断 NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE; //使能通道1中断
NVIC_Init(&NVIC_InitStructure); //初始化NVIC NVIC_Init(&NVIC_InitStructure); //初始化NVIC
TIM_Cmd(TIM3, ENABLE); //TIM3使能 // TIM_Cmd(TIM3, ENABLE); //TIM3使能
} }
void TIM3_IRQHandler(void) void TIM3_IRQHandler(void)
@ -63,7 +66,7 @@ void TIM3_IRQHandler(void)
// static int flag1 = 0; // static int flag1 = 0;
if (TIM_GetITStatus(TIM3, TIM_IT_Update) != RESET) { //检查TIM3中断是否发生。 if (TIM_GetITStatus(TIM3, TIM_IT_Update) != RESET) { //检查TIM3中断是否发生。
TIM_ClearITPendingBit(TIM3, TIM_IT_Update); //清除TIM3的中断挂起位。 TIM_ClearITPendingBit(TIM3, TIM_IT_Update); //清除TIM3的中断挂起位。
TimeSliceOffset_Produce(); test();
// flag1++; // flag1++;
// if (flag1 == 20) { // if (flag1 == 20) {
// if (flag) { // if (flag) {
@ -129,3 +132,70 @@ void TIM2_IRQHandler(void)
run_Broadcast = 1; run_Broadcast = 1;
} }
} }
//SysTick初始化配置 1MS进入一次中断
static void SysTick_Config(uint32_t ticks)
{
SysTick->SR = 0;
SysTick->CNT = 0;
SysTick->CMP = ticks;
SysTick->CTLR =0xF;
NVIC_SetPriority(SysTicK_IRQn, 15);
NVIC_EnableIRQ(SysTicK_IRQn);
}
void Systick_Init(void)
{
SysTick_Config((SystemCoreClock / 1000) - 1);
}
void SysTick_Handler(void)
{
SysTick->SR = 0;
TimeSliceOffset_Produce();
}
void TIM1_Init(uint16_t delay_ms)
{
/* 分频系数 */
uint16_t psc = (SystemCoreClock / 10000) - 1;
/* */
uint16_t arr = delay_ms * 10 - 1;
// uint16_t arr = 10 - 1;
TIM1_Int_Init(arr, psc);
}
void TIM1_Int_Init(uint16_t arr, uint16_t psc)
{
TIM_TimeBaseInitTypeDef TIM_TimeBaseStructure;
NVIC_InitTypeDef NVIC_InitStructure;
RCC_PB2PeriphClockCmd(RCC_PB2Periph_TIM1, ENABLE); //使能TIM1时钟
TIM_TimeBaseStructure.TIM_Period = arr; //指定下次更新事件时要加载到活动自动重新加载寄存器中的周期值。
TIM_TimeBaseStructure.TIM_Prescaler = psc; //指定用于划分TIM时钟的预分频器值。
TIM_TimeBaseStructure.TIM_ClockDivision = TIM_CKD_DIV1; //时钟分频因子
TIM_TimeBaseStructure.TIM_CounterMode = TIM_CounterMode_Up; //TIM计数模式，向上计数模式
TIM_TimeBaseInit(TIM1, &TIM_TimeBaseStructure); //根据指定的参数初始化TIMx的时间基数单位
TIM_ITConfig(TIM1, TIM_IT_Update, ENABLE); //使能TIM1中断，允许更新中断
//初始化TIM NVIC，设置中断优先级分组
NVIC_InitStructure.NVIC_IRQChannel = TIM1_UP_IRQn; //TIM1中断
NVIC_InitStructure.NVIC_IRQChannelPreemptionPriority = 0; //设置抢占优先级0
NVIC_InitStructure.NVIC_IRQChannelSubPriority = 3; //设置响应优先级3
NVIC_InitStructure.NVIC_IRQChannelCmd = ENABLE; //使能通道中断
NVIC_Init(&NVIC_InitStructure); //初始化NVIC
TIM_Cmd(TIM1, ENABLE); //TIM1使能
}
void TIM1_UP_IRQHandler(void)
{
if (TIM_GetITStatus(TIM1, TIM_IT_Update) != RESET) { //检查TIM1中断是否发生。
TIM_ClearITPendingBit(TIM1, TIM_IT_Update); //清除TIM1的中断挂起位。
printf("in tim1 irq \n");
}
}

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obj/Hardware/src/tim.d
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@ -29,7 +29,8 @@ Hardware/src/tim.o: ../Hardware/src/tim.c \
D:\psx\MPPT\git\Drivers\TimeSliceOffset/timeSliceOffset.h \ D:\psx\MPPT\git\Drivers\TimeSliceOffset/timeSliceOffset.h \
D:\psx\MPPT\git\App\inc/uart_dev.h \ D:\psx\MPPT\git\App\inc/uart_dev.h \
D:\psx\MPPT\git\Drivers\RingQueue/ring_queue.h \ D:\psx\MPPT\git\Drivers\RingQueue/ring_queue.h \
D:\psx\MPPT\git\Hardware\inc/rs485.h D:\psx\MPPT\git\Hardware\inc/pwm.h D:\psx\MPPT\git\Hardware\inc/rs485.h D:\psx\MPPT\git\Hardware\inc/pwm.h \
D:\psx\MPPT\git\App\inc/mppt_control.h
D:\psx\MPPT\git\Hardware\inc/tim.h: D:\psx\MPPT\git\Hardware\inc/tim.h:
@ -98,3 +99,5 @@ D:\psx\MPPT\git\Drivers\RingQueue/ring_queue.h:
D:\psx\MPPT\git\Hardware\inc/rs485.h: D:\psx\MPPT\git\Hardware\inc/rs485.h:
D:\psx\MPPT\git\Hardware\inc/pwm.h: D:\psx\MPPT\git\Hardware\inc/pwm.h:
D:\psx\MPPT\git\App\inc/mppt_control.h:

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