Keil5-send-message.rar_Keil5-send-message_keil5 _keil5 stm32_stm

#include "mbed.h" //------------------------------------ // Hyperterminal configuration // 9600 bauds, 8-bit data, no parity //------------------------------------ Serial pc1(SERIAL_TX, SERIAL_RX); Serial pc2(PA_9, PA_10); void Rx_interrupt(); // Circular buffers for serial TX and RX data - used by interrupt routines int buffer_size = 150; // might need to increase buffer size for high baud rates char tx_buffer[70]; char rx1_buffer[150]; char rx2_buffer[150]; // Circular buffer pointers // volatile makes read-modify-write atomic volatile int tx_in=0; volatile int tx_out=0; volatile int rx1_in=0; volatile int rx2_in=0; volatile int rx_out=0; // Line buffers for sprintf and sscanf char tx_line[80]; char rx_line[80]; char message[20]; char mode[15] = "AT+CMGF=1\r"; char phone[30] = "AT+CMGS=\"1252013637735859\"\r"; char sms[30] = "Hello my dream!\x01a"; char read[15] ="AT+CMGR=";//AT+CMGL="REC UNREAD" char flag = 0; int temp = 14; DigitalOut myled(LED1); DigitalIn mybutton(PC_13); DigitalIn ghg(PB_3); int main() { int i,num,length; myled =1; pc1.attach(&Rx_interrupt, Serial::RxIrq); pc2.attach(&Rx_interrupt, Serial::RxIrq); while(1) { //pc1.printf("I love moonkk"); if(mybutton == 0) { pc1.printf ("button low"); wait(1); } if(ghg==1) { pc1.printf("%s",mode); pc2.printf("%s",mode); wait(1); pc1.printf("%s",phone); pc2.printf("%s",phone); wait(1); pc1.printf("set:%d",temp); pc1.printf("%s",sms); pc2.printf("set:%d",temp); pc2.printf("%s",sms); wait(2); } if(flag == 2) { wait(0.5); flag = 0; length = strlen(rx2_buffer); //pc1.printf("%c",rx2_buffer[5]); //pc1.printf("%c",rx2_buffer[6]); if(rx2_buffer[5]=='T'&&rx2_buffer[6]=='I') { if(rx2_buffer[15]>='0'&&rx2_buffer[15]<='9') { num = (int)(rx2_buffer[14] - 0x30)*10+(int)(rx2_buffer[15] - 0x30); } else { num = (int)(rx2_buffer[14] - 0x30); } pc1.printf("AT+CMGR=%d\r",num); pc2.printf("AT+CMGR=%d\r",num); } if(rx2_buffer[5]=='G'&&rx2_buffer[6]=='R') { int j = 0; int q =0; pc1.printf(rx2_buffer); for(j=0;j<length;j++) { if(rx2_buffer[j]=='#') { break; } } if(j<length) { //j++; while(rx2_buffer[j]!='\0') { message[q++]=rx2_buffer[j++]; } message[q]='\0'; pc1.printf("\nmeaas:%s\n",message); } if(message[0]=='#'&&message[1]=='o'&&message[2]=='n') { pc1.printf("%s",mode); pc2.printf("%s",mode); wait(1); pc1.printf("%s",phone); pc2.printf("%s",phone); wait(1); pc1.printf("set:%d",temp); pc1.printf("%s",sms); pc2.printf("set:%d",temp); pc2.printf("%s",sms); wait(2); } else if(message[0]=='#'&&message[1]=='o'&&message[2]=='f') { pc1.printf("%s",mode); pc2.printf("%s",mode); wait(1); pc1.printf("%s",phone); pc2.printf("%s",phone); wait(1); pc1.printf("off:%d",temp); pc1.printf("%s",sms); pc2.printf("off:%d",temp); pc2.printf("%s",sms); wait(2); } else { pc1.printf("%s",mode); pc2.printf("%s",mode); wait(1); pc1.printf("%s",phone); pc2.printf("%s",phone); wait(1); pc1.printf("other:%d",temp); pc1.printf("%s",sms); pc2.printf("other:%d",temp); pc2.printf("%s",sms); wait(2); } } for(i=0;i<length+2;i++) { rx2_buffer[i]='\0'; } rx2_in = 0; } if(flag==1) { wait(1); flag = 0; length = strlen(rx1_buffer); if(rx1_buffer[0]=='d'&&rx1_buffer[1]=='e'&&rx1_buffer[2]=='l') { int i; for(i=0;i<=num;i++) { pc1.printf("AT+CMGD=%d\r",i); pc2.printf("AT+CMGD=%d\r",i); wait(1); } } pc1.printf("length:%d",length); num++; pc1.printf("AT+CMGR=%d\r",num); pc2.printf("AT+CMGR=%d\r",num); for(i=0;i<length+2;i++) { rx1_buffer[i]='\0'; } rx1_in = 0; } } } void Rx_interrupt() { while (pc1.readable()) { flag = 1; rx1_buffer[rx1_in] = pc1.getc(); rx1_in = (rx1_in + 1) % buffer_size; } while (pc2.readable()) { flag = 2; rx2_buffer[rx2_in] = pc2.getc(); rx2_in = (rx2_in + 1) % buffer_size; } // rx_buffer[rx_in]='\0'; }