LPC824専用プログラム
Dependencies: Ping SDFileSystem mbed-src
format.cpp
- Committer:
- lilac0112_1
- Date:
- 2016-01-12
- Revision:
- 6:79dc74e4926a
- Parent:
- 5:afba6bf6c408
- Child:
- 7:9b1ac6fbf32c
File content as of revision 6:79dc74e4926a:
#include "mbed.h" #include "extern.h" #ifdef SD_CARD void Sd_System(void){ char buf[BUFSIZE]; uint16_t FileData[FDATA_NUM]={0}, num, data; uint8_t spi_num, h_byte, l_byte, val, packet; int i; FILE *fp; char *fname="/sd/mydir/sdtest.txt"; char *dname="/sd/mydir"; mkdir(dname, 0777); pc.printf("Hello World!\n"); fp = fopen(fname, "r"); if(fp == NULL) { error("Could not open file for read\n"); } while(fgets(buf, sizeof(buf), fp) != NULL){ if(buf[0] == '#') continue; num = atol(strtok(buf, ",")); data = atol(strtok(NULL, "\r\n\0")); if(num<FDATA_NUM){ FileData[num] = data; pc.printf("%d, %ld\n", num, FileData[num]); } else{ continue; } } fclose(fp); while(1){ val = nucleo.receive(); if(!val) continue; spi_num = nucleo.read(); h_byte = nucleo.read(); l_byte = nucleo.read(); if((spi_num&0x80)>>7 == 1){//writing to sd spi_num = spi_num & 0x7F; if(spi_num<FDATA_NUM){ FileData[spi_num] = (h_byte<<8) | l_byte; //pc.printf("%d, %ld\n", num, FileData[num]); fp = fopen(fname, "w"); for(i=0; i<FDATA_NUM; i++) fprintf(fp, "%d, %ld\n", i, FileData[i]); fclose(fp); } } else{//reading from sd spi_num = spi_num & 0x7F; if(spi_num<FDATA_NUM){ h_byte = (FileData[spi_num] & 0xFF00)>>8; l_byte = (FileData[spi_num] & 0x00FF); packet = h_byte; nucleo.reply(packet); packet = l_byte; nucleo.reply(packet); } } //pc.printf("Goodbye World!\n"); } } #endif /*SD_CARD*/ #ifdef ULTRA_SONIC void Usw_System(void){ uint8_t packet, val, order; uint16_t front_dis=0, rear_dis=0; while(1){ front.Send(); wait_ms(30); front_dis = front.Read_cm(); rear.Send(); wait_ms(30); rear_dis = rear.Read_cm(); while(1){ val = nucleo.receive(); if(val){ order = nucleo.read(); switch(order){ case 0x01: packet = (front_dis&0x00FF);break; case 0x02: packet = (front_dis&0xFF00)>>8;break; case 0x03: packet = (rear_dis&0x00FF);break; case 0x04: packet = (rear_dis&0xFF00)>>8;break; default: packet = 0x00;break; } nucleo.reply(packet); } else{ break; } } } } #endif /*ULTRA_SONIC*/ #ifdef COLOR_SENSOR void Color_System(void){ uint8_t val, order, packet; uint16_t data; while(1){ while(1){ val = nucleo.receive(); if(val){ order = nucleo.read(); order %= SENSOR_X_COLOR; data = ColorSensor[order].read_u16(); packet = (data & 0xFF00)>>8; nucleo.reply(packet); } else{ break; } } } } #endif /*COLOR_SENSOR*/ #ifdef IR_SENSOR void Ir_System2(void){ static uint8_t const START_BIT = 0x04; static uint8_t const MODE_SINGLE = 0x02; // Single-ended mode //static uint8_t const MODE_DIFF = 0x00; // Differential mode int i;//ic int j;//ch uint8_t ch_num[3]={8, 8, 4}; int command_high; int command_low; int high_byte; int low_byte; uint16_t ir_data[3][8]={0}; //clock_t stime,etime; supply = 1; ir.frequency(1000000); for(i=0; i<IC_NUM; i++) cs[i]=1; while(1) { //stime = clock(); for(i=0; i<IC_NUM; i++){//IC for(j=0; j<ch_num[i]; j++){//Ch command_high = START_BIT | MODE_SINGLE | ((j & 0x04) >> 2); command_low = (j & 0x03) << 6; cs[i] = 0; ir.write(command_high); high_byte = ir.write(command_low) & 0x0F; low_byte = ir.write(0); cs[i] = 1; wait_us(1); ir_data[i][j] = (high_byte << 8) | low_byte; } } //etime = clock(); //pc.printf("%.4f\n", (float)(etime-stime)/CLOCKS_PER_SEC); pc.printf("%Value is "); pc.printf("%d\t", ir_data[1][2]); pc.printf("%d\t", ir_data[1][4]); pc.printf("%d\t", ir_data[0][0]); pc.printf("%d\t", ir_data[0][4]); pc.printf("\r\n"); } } void Ir_System(void){ static uint8_t const START_BIT = 0x04; static uint8_t const MODE_SINGLE = 0x02; // Single-ended mode //static uint8_t const MODE_DIFF = 0x00; // Differential mode static uint8_t const IR_NUM[IC_NUM] = {8, 8, 4}; uint8_t ic, ch; unsigned int command_high, command_low; unsigned int high_byte, low_byte; //uint8_t i; //uint8_t packet, val, order; uint16_t ir_data[IC_NUM][CH_NUM]; supply = 1; ir.frequency(1000000); for(ic=0; ic<IC_NUM; ic++) cs[ic]=1; while(1) { for(ic=0; ic<IC_NUM; ic++){//IC for(ch=0; ch<IR_NUM[ic]; ch++){//Ch command_high = START_BIT | MODE_SINGLE | ((ch & 0x04) >> 2); command_low = (ch & 0x03) << 6; cs[ic] = 0; ir.write(command_high); high_byte = ir.write(command_low) & 0x0F; low_byte = ir.write(0); cs[ic] = 1; wait_us(1); ir_data[ic][ch] = ((high_byte << 4) | (low_byte >> 4))&0xFF; } } pc.printf("%d\t%d\t%d\t%d\t\r\n", ir_data[1][0], ir_data[1][1], ir_data[1][2], ir_data[1][3]); /*while(1){ val = nucleo.receive(); if(val){ order = nucleo.read(); packet = ir_data[order/10][order%10] & 0x00FF; nucleo.reply(packet); wait_us(1); } else{ break; } }*/ } } #endif /*IR_SENSOR*/