1,500 रूबल के लिए डू-इट-खुद स्मार्ट घड़ी। भाग 3 - एमके कार्यक्रम

#include <msp430g2553.h> #include "Symbols.h" #include "TI_USCI_I2C_master.h" /* Bit operations */ #define BIT_SET(lval, mask) ((lval) |= (mask)) #define BIT_CLR(lval, mask) ((lval) &= ~(mask)) #define BIT_TEST(val, mask) (((val) & (mask))==(mask)) /* BSL */ #define TXD BIT1 // P1.1: BSL TxD #define RXD BIT5 // P1.5: BSL RxD /* BT */ #define BT_TXD BIT1 // P2.1: UART BT TxD #define BT_RXD BIT0 // P2.0: UART BT RxD #define BT_PWR BIT2 // P2.2, P3.2 #define BT_LED BIT3 // P3.3 /* LCD */ #define PIN_RESET BIT2 // P1.2 RESET #define PIN_SCE BIT3 // P1.3 CS #define PIN_SDIN BIT4 // P1.4 SDA //mosi #define PIN_SCLK BIT1 // P3.1 SCK #define PIN_LED BIT0 // P3.0   #define LCD_C 0 // Command #define LCD_D 1 // Data /* Buttons & vibro */ #define B_CENT BIT4 // P2.4 #define B_UP BIT3 // P2.3 #define B_DOWN BIT5 // P2.5 #define vibro BIT4 // P3.4 /* System configuration */ #define TIMER1A_CLOCK 1000000L // Timer1_A clock rate (1 MHz) #define UART_BAUD 9600 // desired UART baud rate #define BT_BITTIME (TIMER1A_CLOCK/UART_BAUD) // Bit interval #define BT_HALF_BT ((BT_BITTIME+1)/2) // Half-bit interval #define Slave_Address 0x68 // address RTC
      
      

        
        
        
      

    
        
        
        
      
      

        
        
        
      

    
     

 void check_akkum(void); //    void check_bluetooth(void); //   BT void uart_tx_bt(char c); //    BT void uart_puts_bt(char const* s); //    BT void get_time_from_rtc(void); //        FLASH void set_time_to_rtc(void); //     void LcdCharacter(char character); //   void LcdClear(void); //    void clear_1(void); //  ,    void Lcd_set_pos(unsigned char c, unsigned char r); //       void Lcd_set_pos_pix(unsigned char c, unsigned char r); //       void lcd_contrast(unsigned char contrast2); //    void lcd_dig(unsigned char num, unsigned char pos_x, unsigned char pos_y); //   void lcd_dot(unsigned char num, unsigned char pos_x, unsigned char pos_y); //   void LcdWrite(unsigned char dc, unsigned char data); //  /   void LcdString(char *characters); //   void lcd_show_sms(unsigned char a); //   void lcd_show_call(unsigned char a); //   void lcd_show_bt(unsigned char a); //  BT void lcd_show_bat(unsigned char proc); //   void lcd_set_time_big(void); //    void lcd_set_time_small(void); //    (  ) void lcd_show_main(void); //    (   ) void menu_setting(unsigned char submenu); //  void down_sub_menu(void); //    void up_sub_menu(void); //     void parse_string(void); //   
      
      

        
        
        
      

    
        
        
        
      
      

        
        
        
      

    
     

  WDTCTL = WDTPW + WDTHOLD; //   // init clocks BCSCTL1 = CALBC1_8MHZ; DCOCTL = CALDCO_8MHZ; BCSCTL2 = 0; // MCLK = 8MHz/1,SMCLK = 8MHz/1 BCSCTL3 = LFXT1S_2; // Mode 2 for LFXT1 : VLO = 12kHz __delay_cycles(800000); //  BSL     . 0 BIT_SET(P1DIR, TXD | RXD); BIT_CLR(P1OUT, TXD | RXD); edit_time = 0; //       FLASH' char *a; a = (char*) 0x104d; contrast = *a++; pwm_width = 0x00ff | (*a++) << 8; timer_off = ((*a++) & 0x00ff) << 8; timer_off |= ((*a++) & 0x00ff); //    LCD BIT_SET(P1DIR, PIN_RESET + PIN_SCE + PIN_SDIN); BIT_SET(P3DIR, PIN_SCLK); BIT_CLR(P1OUT, PIN_RESET + PIN_SDIN); BIT_CLR(P3OUT, PIN_SCLK); BIT_SET(P1OUT, PIN_SCE); BIT_SET(P3DIR, PIN_LED); BIT_SET(P3OUT, PIN_LED); BIT_SET(P1OUT, PIN_RESET); //   LCD LcdWrite(LCD_C, 0xE2); //   LcdWrite(LCD_C, 0x3D); // Charge pump ON LcdWrite(LCD_C, 0x01); // Charge pump=4 LcdWrite(LCD_C, 0xA4); // LcdWrite(LCD_C, 0x2F); // LcdWrite(LCD_C, 0xC0); //  - LcdWrite(LCD_C, 0xA0); //  - __delay_cycles(800000); LcdWrite(LCD_C, 0xAF); // Display ON LcdClear(); lcd_contrast(contrast); BIT_SET(P3SEL, PIN_LED); BIT_SET(P3DIR, PIN_LED); //     TACTL = TASSEL_2 + ID_0 + MC_1 + TACLR; // SMCLK/1 +    TACCR0 + counter clear TACCR0 = 0x0fff; //   TACCR2 = pwm_width; //     TACCTL2 = OUTMOD_6; //   // init Bluetooth BIT_SET(P3DIR, BT_PWR); BIT_CLR(P3REN, BT_PWR); BIT_SET(P3OUT, BT_PWR); BIT_SET(P2DIR, BT_PWR); BIT_CLR(P2REN, BT_PWR); BIT_SET(P2OUT, BT_PWR); //  ON BIT_CLR(P3DIR, BT_LED); //  bt_on = 1; lcd_show_bt(1); //Timer1  uart TA1CTL = TASSEL_2 + ID_3 + MC_2 + TAIE; //SMCLK/8 + Continous up + interrupt enable TA1CCTL1 = OUT; //Tx TA1CCTL0 = CM_2 + SCS + CAP + CCIE; //Rx // Rx  TX   BIT_SET(P2SEL, BT_TXD + BT_RXD); BIT_SET(P2DIR, BT_TXD); //  .  BIT_SET(TA1CCTL2, CCIE); //   BIT_CLR(P2DIR, B_CENT|B_UP|B_DOWN); //   - IN BIT_SET(P2REN, B_CENT|B_UP|B_DOWN); //   BIT_SET(P2IE, B_CENT|B_UP|B_DOWN); //   BIT_SET(P2IES, B_CENT|B_UP|B_DOWN); //    1/0 (/) BIT_CLR(P2IFG, B_CENT|B_UP|B_DOWN); //    // WDT+   ,  12  - ACLK - VLO WDTCTL = WDTPW + WDTTMSEL + WDTSSEL; BIT_SET(IE1, WDTIE); // vibro -  BIT_SET(P3DIR, vibro); BIT_CLR(P3OUT, vibro); lcd_show_main(); //   __enable_interrupt(); edit_time = 0; get_time = 0; set_time = 0; get_time_from_rtc(); //   __delay_cycles(8000000); set_time_to_rtc(); //   // init ADC ADC10CTL0 = SREF_1 + ADC10SR + REF2_5V + ADC10SHT_2 + REFON + ADC10ON + ADC10IE; ADC10CTL1 = INCH_0; ADC10AE0 |= 0x01; //  0-     
      
      

        
        
        
      

    
        
        
        
      
      

        
        
        
      

    
     

  unsigned int il; unsigned char z,k; switch (inputString[0]) { case '1': { //     BT  BIT_SET(P3OUT, vibro); __delay_cycles(1600000); BIT_CLR(P3OUT, vibro); __delay_cycles(1600000); BIT_SET(P3OUT, vibro); __delay_cycles(1600000); BIT_CLR(P3OUT, vibro); __delay_cycles(1600000); BIT_SET(P3OUT, vibro); __delay_cycles(1600000); BIT_CLR(P3OUT, vibro); lcd_show_bt(2); bt_connect = 1; break; } case '2': { //    current_screen = 1; lcd_show_sms(1); lcd_show_call(0); clear_1(); Lcd_set_pos(0, 1); z = 1; il = 1; k = 15; if (multiscreen) { current_screen = 4; while (il < 105) { LcdCharacter(inputString[il]); if (++il > k){ Lcd_set_pos(0, ++z); k += 15; } } LcdCharacter(0x7f); } else while (inputString[il] != 0x00) { LcdCharacter(inputString[il]); if (++il > k){ Lcd_set_pos(0, ++z); k += 15; } } BIT_SET(P3OUT, vibro); __delay_cycles(2800000); BIT_CLR(P3OUT, vibro); __delay_cycles(2400000); BIT_SET(P3OUT, vibro); __delay_cycles(8000000); BIT_CLR(P3OUT, vibro); break; } case '3': { //    current_screen = 1; lcd_show_sms(0); lcd_show_call(1); clear_1(); Lcd_set_pos(0, 2); il = 1; z = 2; k = 15; while (inputString[il] != 0x00) { LcdCharacter(inputString[il]); if (++il > k){ Lcd_set_pos(0, ++z); k += 15; } } call_true = 1; BIT_SET(P3OUT, vibro); __delay_cycles(1600000); BIT_CLR(P3OUT, vibro); __delay_cycles(800000); BIT_SET(P3OUT, vibro); __delay_cycles(8000000); BIT_CLR(P3OUT, vibro); __delay_cycles(1600000); BIT_SET(P3OUT, vibro); __delay_cycles(1600000); BIT_CLR(P3OUT, vibro); __delay_cycles(800000); BIT_SET(P3OUT, vibro); __delay_cycles(8000000); BIT_CLR(P3OUT, vibro); break; } case '4': { //    current_screen = 1; lcd_show_sms(0); lcd_show_call(0); clear_1(); Lcd_set_pos(0, 1); il = 1; z = 1; k = 15; if (multiscreen) { current_screen = 4; while (il < 105) { LcdCharacter(inputString[il]); if (++il > k){ Lcd_set_pos(0, ++z); k += 15; } } LcdCharacter(0x7f); } else while (inputString[il] != 0x00) { LcdCharacter(inputString[il]); if (++il > k){ Lcd_set_pos(0, ++z); k += 15; } } break; } case '5': { //    edit_time = 1; s10 = inputString[1] & 0x0f; s1 = inputString[2] & 0x0f; m10 = inputString[3] & 0x0f; m1 = inputString[4] & 0x0f; h10 = inputString[5] & 0x0f; h1 = inputString[6] & 0x0f; dw = (inputString[7] & 0x0f) + 1 ; d10 = inputString[8] & 0x0f; d1 = inputString[9] & 0x0f; mo10 = inputString[10] & 0x0f; mo1 = inputString[11] & 0x0f; ye10 = inputString[14] & 0x0f; ye1 = inputString[15] & 0x0f; set_time = 1; break; } default: { break; } } if (!multiscreen) for (il = 313; il > 0; il--) inputString[il] = 0;
      
      

        
        
        
      

    
        
        
        
      
      

        
        
        
      

    
     

  //    FLASH char *Flash_ptrC; Flash_ptrC = (char *) 0x1040; // Point to beginning of seg C FCTL2 = FWKEY + FSSEL_1 + FN1; // MCLK/3 for Flash Timing Generator FCTL1 = FWKEY + ERASE; // Set Erase bit FCTL3 = FWKEY ; // Clear LOCK *Flash_ptrC = 0x00; // Dummy write to erase Flash seg C FCTL1 = FWKEY + WRT; // Set WRT bit for write operation Flash_ptrC = (char *) 0x1040; // Point to beginning *Flash_ptrC++ = s10; // 0x1040 *Flash_ptrC++ = s1; // 0x1041 *Flash_ptrC++ = m10; // 0x1042 *Flash_ptrC++ = m1; // 0x1043 *Flash_ptrC++ = h10; // 0x1044 *Flash_ptrC++ = h1; // 0x1045 *Flash_ptrC++ = dw; // 0x1046 *Flash_ptrC++ = d10; // 0x1047 *Flash_ptrC++ = d1; // 0x1048 *Flash_ptrC++ = mo10; // 0x1049 *Flash_ptrC++ = mo1; // 0x104a *Flash_ptrC++ = ye10; // 0x104b *Flash_ptrC++ = ye1; // 0x104c *Flash_ptrC++ = contrast; // 0x104d *Flash_ptrC++ = (pwm_width & 0xff00) >> 8; // 0x104e *Flash_ptrC++ = (timer_off & 0xff00) >> 8; // 0x104f *Flash_ptrC++ = (timer_off & 0x00ff); // 0x1050 FCTL1 = FWKEY; // Clear WRT bit FCTL3 = FWKEY + LOCK; // Set LOCK //    FLASH char *a; a = (char*) 0x1040; s10 = *a++; s1 = *a++; m10 = *a++; m1 = *a++; h10 = *a++; h1 = *a++; dw = *a++; d10 = *a++; d1 = *a++; mo10 = *a++; mo1 = *a++; ye10 = *a++; ye1 = *a++; contrast = *a++; pwm_width = 0x00ff | (*a++) << 8; timer_off = ((*a++) & 0x00ff) << 8; timer_off |= ((*a++) & 0x00ff);