芯片破解STM32 电磁阀控制
| 芯片破解#include "sys.h" 芯片破解#include "usart.h" 芯片破解#include "delay.h" #include "tim1.h" #include "pwm.h" #include "LCD12864.h" #include "stdio.h" #include "adc.h" #include "key.h" #include "TLE7209.h" #include "Sin_curve.h" #include "Parameter.h" #include "led.h" #include "PID.h" u16 Data_int[20]; u8 Cur_Addr[] = {0x90,0x88,0x85}; u8 mode=1; u8 addrs = 0, TIM4CH4_CAPTURE_STA = 0,Cursor_flag,Number_add_flag,KEY_Down_flag; u16 Data[20], Feedback_Analog_value = 0; float Frequence=1300; u32 datanumber=0,Duty=50; u32 CRCI; float Current_Analog_value = 0,SET_Analog_value = 0, Sent_data1, Sent_data2, Sent_data3,Sent_data4, Sent_data5, Sent_data6,Sent_data7, Sent_Voltage_all; float SinPoint = 0, SET_Analog_voltage = 0, Feedback_Analog_voltage = 0,Current_Analog_voltage = 0, Sent_Voltage1 = 0,Sent_Voltage2 = 0,Current_Analog_value_view = 0; int SET_Analog_value_view = 0, Feedback_Analog_value_view = 0, pwm_number = 50,pwm_number1=50,ALL_DATA = 0; float Sent_Voltage21,Sent_Voltage21_view; float Tick_time,base_time,one_tick_time; int Sinpointnumber = 0, first_data; int TIM4CH4_CAPTURE_value = 0, TIM4CH4_CAPTURE_value_last = 0,TIM4CH4_CAPTURE_value_error, TIM4CH4_CAPTURE_value_number,crc,value1,value2,sent_errorcount=0 ; void Dis_Cur() { Write_Com(Cur_Addr[addrs]); delay_ms(10); Write_Com(0x0f); delay_ms(1000); Write_Com(0x0c); } int main(void) { Stm32_Clock_Init(9); //系统时钟设置0.1 uart_init(72, 115200); //串口初始化为115200 delay_init(72); delay_s(1); KEY_Init(); //按键初始化 //TIM_Init(49, 99, 50); Init_12864(); PWM_Init(); GPIO_Configuration(); Adc_Init(); //LCD12864xie(0, 0, "eCBV&CPS"); LCD12864xie(0, 0, "SmartACV"); LCD12864xie(0, 1, "Fre: Hz"); LCD12864xie(0, 2, "Duty: %"); LCD12864xie(0, 3, "Volt: V"); TIM3_Int_Init(540, 719); //TIM4_Capture_Init(0XFFFF, 0);//No frequency division, one cycle time 1/72us //TIM2_PWM_Init(500, 680); //Init_TLE7209(); //TLE7209_DIS = 0; //TLE7209_EN = 0; //TLE7209_SCK = 1; //TLE7209_CS = 1; //TLE7209_SCK =1; //TLE7209_CS=1; while (1) { if(mode==1) {LCD12864xie(5, 0, "Manual");} if(mode==2) {LCD12864xie(5, 0, "Auto");} SET_Analog_value = Get_Adc_Average(4, 1)*3.3*11/4095*100; lcd_sfm(0x8b,Duty); lcd_sfm(0x9b,SET_Analog_value+60); if(Frequence!=1300) {lcd_sfm(0x93,Frequence); TIM_Init(36000/Frequence, 1999, Duty*20);} if(Frequence==1300) { TIM_Init(36000, 12000, 6000); lcd1_sfm(0x93,Frequence/10);} if((Cursor==0)&&(Cursor_flag==1)) {delay_ms(1); ; if(Cursor==0) { addrs ++; if(addrs == 3) { addrs = 0;} Dis_Cur(); Cursor_flag=0; } } if(Cursor==1) {Cursor_flag=1;} if((Number_add==0)&&(Number_add_flag==1)) { if(Number_add==0) if(Number_add==0) { Number_add_flag=0; switch(Cur_Addr[addrs]) { case 0x90: Frequence ++; if(Frequence >=251) {Frequence = 0; } break; case 0x88: Duty ++; if(Duty >=100) {Duty = 0; } break; case 0x85: mode ++; if(mode >=3) {mode =1; } |
芯片解密
