team app1
/
HelloWorld
test
Fork of HelloWorld by
main.cpp
- Committer:
- kkalsi
- Date:
- 2017-09-08
- Revision:
- 28:f56de0b0764e
- Parent:
- 27:0f602aca65f1
- Child:
- 29:3acc071af432
File content as of revision 28:f56de0b0764e:
/**** Vincent Labbé - labv2507 *****/ /**** Karan Kalsi - *****/ #include "mbed.h" #include "MMA8452Q.h" Serial pc(USBTX, USBRX); // tx, rx //SPI spi(p11,p12,p13); //DigitalOut cs(p14); // Communication I2C //I2C i2c(p9,p10); // sda, scl //int main() { // } // on utilise l'afficheur 7 SEG en mode SPI pour la mise au point SPI spi(p5, p6, p7); // mosi, miso, sclk DigitalOut cs(p8); AnalogOut signal(p18); AnalogIn ain(p20); BusOut myleds(LED1, LED2, LED3, LED4); // for display 4 leds in hex format unsigned short value; Ticker display; short table[16] = { 0x00, // 0 0 - 1/16 0x00, // 1 1/16 - 1/8 0x01, // 2 1/8 - 3/16 0x01, // 3 3/16 - 1/4 0x01, // 4 1/4 - 5/16 0x01, // 5 5/16 - 3/8 0x03, // 6 3/8 - 7/16 0x03, // 7 7/16 - 1/2 0x03, // 8 1/2 - 9/16 0x03, // 9 9/16 - 5/8 0x07, // a 5/8 - 11/16 0x07, // b 11/16 - 3/4 0x07, // c 3/4 - 13/16 0x07, // d 13/16 - 7/8 0x0f, // e 7/8 - 15/16 0x0f}; // f 15/16 - 1 void disp() { short i; value = ain.read_u16(); // read input i = (value >> 12) & 0x000f; // transform to hex cs = 0; // affichage 7 SEG via SPI wait_us(5); spi.write(i); wait_us(5); cs = 1; myleds = table[i]; // affichage sur les LEDs } int main() { spi.format(8,0); // initialisation du port SPI pour l'afficheur spi.frequency(100000); cs = 0; wait_us(5); spi.write(0x76); //clear wait_us(5); cs = 1; display.attach(&disp, 0.1); // connexion de la fonction périodique aux 1/10 de seconde // roule constamment while (1){ } } // SPI COMMUNICATION /* int main() { float x, y, z ; MMA8452Q acc(p9,p10,0x1d); // acceleration object cs = 0; //Clear display SPI wait(0.1); spi.write(0x76); // Clear display cs = 1; wait(0.1); cs = 1; while (true) { x = acc.getAccX() ; y = acc.getAccY() ; z = acc.getAccZ() ; printf("X[%.3f] Y[%.3f] Z[%.3f]\n",x, y, z) ; wait(0.1); int X = x * 1000; //Pour enlever floating point et garder une précision int Y = y * 1000; int Z = z * 1000; int angle = (1000-(((2*X*X+2*Y*Y)*1000/(X*X+Y*Y+Z*Z)))); //Calcul vectoriel pour calculer l'angle à l'horizontal pc.printf("avant acos = %d", angle); float ratioZaccel = angle/1000.0; //Remettre en floating point pour acos int resultatRAD = 500*acos((ratioZaccel)); //Reponse en RAD pc.printf("valeur rad new= %d", resultatRAD); int degree = resultatRAD * 18000/31400; //Tranfo degree pc.printf("valeur deg new = %d", degree); pc.printf("valeur deg new = %d", degree); // extracting digits int digit; int digits[4] = {0,0,0,0}; int i = 0; while(degree > 0) { digit = degree % 10; //to get the right most digit digits[i]=digit; pc.printf("digit %d = %d, degree int: %d", i, digits[i], degree); degree /= 10; //reduce the number by one digit ++i; } spi.write(0x77); // Decimal control command // Pour la communication SPI cs = 1; wait(0.01); cs = 0; spi.write(0x04);// Turn on decimal cs = 1; wait(0.01); cs = 0; spi.write(digits[3]); cs = 1; wait(0.01); cs = 0; spi.write(digits[2]); cs = 1; wait(0.01); cs = 0; spi.write(digits[1]); cs = 1; wait(0.01); cs = 0; spi.write(digits[0]); cs = 1; */ /* Test cs = 0; wait(0.1); spi.write(0x5); cs = 1; */ // } //} // UART COMMUNICATION /* void UARTInit() { uint16_t usFdiv; LPC_SC->PCONP |= (1 << 25); // Power up the UART3 it's disabled on powerup. LPC_PINCON->PINSEL1 |= (3 << 18); // Pin P0.25 used as TXD0 (Com0) // Enable the pins on the device to use UART3 LPC_PINCON->PINSEL1 |= (3 << 20); // Pin P0.26 used as RXD0 (Com0) LPC_SC->PCLKSEL1 &= ~(3 << 18); // Clean all to 0 // Setup the PCLK for UART3 LPC_SC->PCLKSEL1 |= (1 << 18); // PCLK = CCLK LPC_UART3->LCR = 0x83; // 0000 0000 1000 0011 // Word select 8-bit character length and set DLAB usFdiv = (SystemCoreClock / (16*9600)); //Baud rate calculation LPC_UART3->DLM = usFdiv / 256; LPC_UART3->DLL = usFdiv % 256; LPC_UART3->FCR = 0x7; // Enable and reset UART3 FIFOs. LPC_UART3->LCR &= ~(1 << 7); // Clear DLAB } char UART3Transmit(int out) { LPC_UART3 -> THR = out; while(! (LPC_UART3->LSR & (0x01 << 0x06))); return 1; } int main() { UARTInit(); float x, y, z ; MMA8452Q acc(p9,p10,0x1d); // acceleration object UART3Transmit(0x76); // Clear display UART while (true) { x = acc.getAccX() ; y = acc.getAccY() ; z = acc.getAccZ() ; printf("X[%.3f] Y[%.3f] Z[%.3f]\n",x, y, z) ; wait(0.1); int X = x * 1000; //Pour enlever floating point et garder une précision int Y = y * 1000; int Z = z * 1000; int angle = (1000-(((2*X*X+2*Y*Y)*1000/(X*X+Y*Y+Z*Z)))); //Calcul vectoriel pour calculer l'angle à l'horizontal pc.printf("avant acos = %d", angle); float ratioZaccel = angle/1000.0; //Remettre en floating point pour acos int resultatRAD = 500*acos((ratioZaccel)); //Reponse en RAD pc.printf("valeur rad new= %d", resultatRAD); int degree = resultatRAD * 18000/31400; //Tranfo degree pc.printf("valeur deg new = %d", degree); pc.printf("valeur deg new = %d", degree); int digit; // extracting digits int digits[4] = {0,0,0,0}; int i = 0; while(degree > 0) { digit = degree % 10; //to get the right most digit digits[i]=digit; pc.printf("digit %d = %d, degree int: %d", i, digits[i], degree); degree /= 10; //reduce the number by one digit ++i; } UART3Transmit(0x77); // Decimal control command // Pour la communication UART UART3Transmit(0x04);// Turn on decimal UART3Transmit(digits[3]); UART3Transmit(digits[2]); UART3Transmit(digits[1]); UART3Transmit(digits[0]); //UART3Transmit(0xA5); } } */ /* // communication I2C Serial pc(USBTX, USBRX); // tx, rx I2C i2c(p9,p10); int main() { i2c.frequency(100000); char cmd[2] = {0,0}; int addr = 0x5A; int data = 0xA4; cmd[0] = addr; cmd[1] = data; while(1){ i2c.write(0x3A,cmd,2); wait_ms(5); } } */ // I2C write //i2c.frequency(100000); //int cmd[0] = 0x0D; //12c.write(addr,cmd,1,true); //i2c.read(addr,cmd,1); /* // communication UART Serial pc(USBTX, USBRX); // tx, rx Serial mc(p9,p10); int main() { int nombre; pc.printf("Entrez un nombre de 4 chiffres : "); pc.scanf("%d", &nombre); pc.printf("Votre numero entrez est le : %d", nombre); //mc.printf(nombre); mc.putc(nombre); } */ /* DigitalOut myled(LED3); int main() { while(1) { myled = 1; wait(0.2); myled = 0; wait(0.2); } } */ // I2C write /* I2C i2c( p28, p26 ); // sda, scl int main() { char data[3]; data[0] = 0x16; data[1] = 0x55; data[2] = 0x55; i2c.write( 0xC0, data, 3 ); //0xC0 is slave adress }*/ // I2C Read /* short read_sensor_lower_8bit( void ) { char v; char cmd; cmd = 0x05; i2c.write( 0x88, &cmd, 1 ); i2c.read( 0x88, &v, 1 ); return( v ); } */ /* int main() { set_time(1256729737); // Set RTC time to Wed, 28 Oct 2009 11:35:37 }*/ /* int main() { while(1) { time_t seconds = time(NULL); printf("Time as seconds since January 1, 1970 = %d\n", seconds); printf("Time as a basic string = %s", ctime(&seconds)); char buffer[32]; strftime(buffer, 32, "%I:%M %p\n", localtime(&seconds)); printf("Time as a custom formatted string = %s", buffer); wait(1); } }*/ /* int main() { // get the current time from the terminal struct tm t; printf("Enter current date and time:\n"); printf("YYYY MM DD HH MM SS[enter]\n"); scanf("%d %d %d %d %d %d", &t.tm_year, &t.tm_mon, &t.tm_mday , &t.tm_hour, &t.tm_min, &t.tm_sec); // adjust for tm structure required values t.tm_year = t.tm_year - 1900; t.tm_mon = t.tm_mon - 1; // set the time set_time(mktime(&t)); // display the time while(1) { time_t seconds = time(NULL); printf("Time as a basic string = %s", ctime(&seconds)); wait(1); } }*/