void main() {
trisb=0b11111011;
uart1_init(2400);
PWM1_Init(30000);
PWM1_Set_Duty(127);
PWM1_Start();
for(;;){
if(portb.f0==0)
{
uart1_write('a');
}while(portb.f0==0);
if(portb.f4==0)
{
uart1_write('a');
}while(portb.f4==0);
if(portb.f5==0)
{
uart1_write('b');
}while(portb.f5==0);
if(portb.f6==0)
{
uart1_write('c');
}while(portb.f6==0);
}
}
// Triggered whenever a character is recv'd
__declspec(interrupt) void uart1_isr() {
if(MCF_UART1_USR & MCF_UART_USR_RXRDY) {
MCF_UART1_UCR = MCF_UART_UCR_RX_ENABLED;
uint8_t rc = (uint8_t)MCF_UART1_URB;
if(rc == PACKET_ID_DL) {
map_dl_pos_x = 0;
map_dl_pos_y = 0;
// Signal we are ready for the map
uart1_write(PACKET_ID_GET);
} else {
if(map_dl_pos_y > 8 || map_dl_pos_x > 8)
return;
dl_map[map_dl_pos_y][map_dl_pos_x] = rc;
// If we've written the last byte of the map, send an acknowledge and copy the man into init_map
if(map_dl_pos_y == 7 && map_dl_pos_x == 7) {
uart1_write(PACKET_ID_ACK);
pacman_set_init_map(dl_map);
}
// Next column
map_dl_pos_x++;
// Move to the next row
if(map_dl_pos_x == 8) {
map_dl_pos_x = 0;
map_dl_pos_y++;
}
}
}
}
void data_hub_send_telemetry(char buf[PAGE_SIZE]){
static __xdata u16 sequence_num = 0;
u16 crc = crc16(buf, PAGE_SIZE,
crc16((u8 *)&(++sequence_num), sizeof(sequence_num), 0));
if(uart1_tx_margin() < (
sizeof(protocol_header) + sizeof(sequence_num) + PAGE_SIZE + sizeof(crc))){
return;
}
uart1_write(protocol_header, sizeof(protocol_header));
uart1_write((u8 *)&sequence_num, sizeof(sequence_num));
uart1_write(buf, PAGE_SIZE);
uart1_write((u8 *)&crc, sizeof(crc));
}
void telemeter_send(char buf[SYLPHIDE_PAGESIZE]){
static __xdata u16 sequence_num = 0;
u16 crc;
if((!telemeter_ready)
|| (uart1_tx_margin() < (
sizeof(sylphide_protocol_header) + sizeof(sequence_num)
+ SYLPHIDE_PAGESIZE + sizeof(crc)))){
return;
}
crc = crc16(buf, SYLPHIDE_PAGESIZE,
crc16((u8 *)&(++sequence_num), sizeof(sequence_num), 0));
uart1_write(sylphide_protocol_header, sizeof(sylphide_protocol_header));
uart1_write((u8 *)&sequence_num, sizeof(sequence_num));
uart1_write(buf, SYLPHIDE_PAGESIZE);
uart1_write((u8 *)&crc, sizeof(crc));
}
void main() {
unsigned int x=0;
char txt[7];
char pins;
unsigned int clpin[8];
config();
flash();
uart1_init(9600);
uart1_write_text("hello");
clpin[0]=touch(0);
clpin[1]=touch(1);
clpin[2]=touch(2);
clpin[3]=touch(3);
clpin[4]=touch(8);
clpin[5]=touch(9);
clpin[6]=touch(10);
clpin[7]=touch(12);
while(1)
{
//delay_ms(100);
uart1_write_text("pin=");
x=touch(2);
inttostr(x,txt);
uart1_write_text(txt);
uart1_write(13);
uart1_write_text("pin=");
pins=get_touch(clpin);
inttostr(pins,txt);
uart1_write_text(txt);
uart1_write(13);
led(pins);
}
}
void uart1_write(char c)
{
unsigned int oldmask;
oldmask = irq_getmask();
irq_setmask(0);
if (c == '\n')
uart1_write('\r');
while (!(readb(&uart1->lsr) & (LM32_UART_LSR_THRR | LM32_UART_LSR_TEMT)))
;
writeb(c, &uart1->rxtx);
irq_setmask(oldmask);
}
void uart1_write_byte( unsigned char Byte)
{
uart1_write(&Byte, 1);
}
int main(void)
{
uint8_t status;
init2();
wait(1000);
uart1_reset();
uart1_write("+", 1);
flash_init();
uart1_write("++", 2);
status = MDPROTO_STATUS_OK;
while (1) {
wait(1000);
uart1_reset();
status = read_cmd();
if (status == MDPROTO_STATUS_OK) {
switch (buf.data.id) {
case MDPROTO_CMD_PING:
write_cmd_response(MDPROTO_CMD_PING_RESPONSE, "PONG", strlen("PONG"));
break;
case MDPROTO_CMD_MEM_READ:
if (MDPROTO_CMD_SIZE(buf) != 9)
status = MDPROTO_STATUS_WRONG_PARAM;
else {
uint32_t from, to;
from = (buf.data.p[1] << 24)
| (buf.data.p[2] << 16)
| (buf.data.p[3] << 8)
| (buf.data.p[4]);
to = (buf.data.p[5] << 24)
| (buf.data.p[6] << 16)
| (buf.data.p[7] << 8)
| (buf.data.p[8]);
if (to < from)
status = MDPROTO_STATUS_WRONG_PARAM;
else {
union {
uint32_t u32;
uint16_t u16[2];
uint8_t u8[4];
} __attribute__((packed)) chunk;
unsigned pkt_size, chunk_size;
pkt_size = mdproto_pkt_init(&buf, MDPROTO_CMD_MEM_READ_RESPONSE, NULL, 0);
/* Alligned read */
while (from <= to) {
/* read chunk */
if ( ((from % 4) == 0) && ( to-from+1 >= 4 )) {
uint32_t volatile *from_u32 __attribute__((aligned(__alignof__(uint32_t))));
from_u32 = (uint32_t *)from;
chunk_size = 4;
chunk.u32 = *from_u32;
}else if ( ((from % 2) == 0) && ( to-from+1 >= 2 ) ) {
uint16_t volatile *from_u16 __attribute__((aligned(__alignof__(uint16_t))));
from_u16 = (uint16_t *)from;
chunk_size = 2;
chunk.u16[0] = *from_u16;
}else {
chunk_size=1;
chunk.u8[0] = *(uint8_t *)from;
}
from += chunk_size;
/* Append chunk to packet */
pkt_size = mdproto_pkt_append(&buf, &chunk.u8[0], chunk_size);
/* Flush full packet */
if (MDPROTO_CMD_SIZE(buf)+8 > MDPROTO_CMD_MAX_RAW_DATA_SIZE) {
uart1_write((void *)&buf, pkt_size);
pkt_size = (unsigned)mdproto_pkt_init(&buf, MDPROTO_CMD_MEM_READ_RESPONSE, NULL, 0);
}
} /* while (from <= to) */
if (MDPROTO_CMD_SIZE(buf) > 0)
uart1_write((void *)&buf, pkt_size);
}
}
void main() {
int i;
int temp1;
char test[32];
uart1_init(2400);
CE_DIR=0;
CSN_DIR=0;
CSK_DIR=0;
MOSI_DIR=0;
MISO_DIR=1;
delay_ms(500);
nrf24_config();
CSN=1;
CE=1;
lcd_init();
Lcd_Cmd(_LCD_CURSOR_OFF);
//lcd_out(2,1,"welcome");
trisb.f0=0;
rb0_bit=0;
trisd.f0=0;
for(i=0;i<30;i++)
{
rd0_bit=1;
delay_us(400);
rd0_bit=0;
delay_us(19600);
}
uart1_write_text("TEST");
uart1_write(13);
//lcd_out(1,1,"S");
while(1)
{
temp1=read_add(0x07);
if(((temp1&0b01000000)>>6)==1)
{
CE=0;
delay_ms(50);
//lcd_out(1,1,"data");
read_buff(0x61,test,32);
uart1_write_text(test);
lcd_out(1,1,test);
reset();
CE=1;
}
if(uart1_data_ready())
{
rfid[idx]=uart1_read();
///////////////////////////////////////////////////////////03002e2838
if(rfid[idx]=='0'&&valid2<10)
{
valid2++;
}
else if(rfid[idx]=='3'&&valid2<10)
{
valid2++;
}
else if(rfid[idx]=='2'&&valid2<10)
{
valid2++;
}
else if(rfid[idx]=='E'&&valid2==5)
{
valid2++;
}
else if(rfid[idx]=='8'&&valid2<10)
{
valid2++;
}
else
{
valid2=0;
}
if(rfid[idx]=='0'&&valid1<10) //03002e90b0
{
valid1++;
}
else if(rfid[idx]=='3'&&valid1==1)
{
valid1++;
}
else if(rfid[idx]=='2'&&valid1==4)
{
valid1++;
}
else if(rfid[idx]=='E'&&valid1==5)
{
valid1++;
}
else if(rfid[idx]=='9'&&valid1==6)
{
valid1++;
}
else if(rfid[idx]=='B'&&valid1==8)
{
valid1++;
}
else
{
valid1=0;
}
if(valid2>=10)
{
lcd_out(2,1,"User2 : 03002E2838");
delay_ms(1000);
lcd_cmd(_lcd_clear);
lcd_out(2,1,"UnValid");
valid2=0;
for(i=0;i<30;i++)
{
rd0_bit=1;
delay_us(400);
rd0_bit=0;
delay_us(19600);
}
delay_ms(1000);
lcd_cmd(_lcd_clear);
}
if(valid1>=10)
{
lcd_out(2,1,"User1 : 03002E90B0");
delay_ms(1000);
lcd_cmd(_lcd_clear);
lcd_out(2,1,"Valid");
valid1=0;
for(i=0;i<30;i++)
{
rd0_bit=1;
delay_us(1500);
rd0_bit=0;
delay_us(18500);
}
delay_ms(1000);
for(i=0;i<30;i++)
{
rd0_bit=1;
delay_us(400);
rd0_bit=0;
delay_us(19600);
}
lcd_cmd(_lcd_clear);
}
}
}
}
void uart1_puts(const char *s)
{
while (*s)
uart1_write(*s++);
}
void main() {
char rec;
int x,y;
int f[5];
char send[7];
uart1_init(9600);
trisc=0b10000000;
DI=1;
CLK=1;
uart1_write_text("hello");
while(1)
{
if(uart1_data_ready())
{
rec=uart1_read();
if(rec=='1')
audio(1);
if(rec=='2')
audio(2);
if(rec=='3')
audio(3);
if(rec=='4')
audio(4);
if(rec=='5')
audio(5);
}
f[0]=adc_read(12);
f[1]=adc_read(10);
f[2]=adc_read(8);
f[3]=adc_read(9);
f[4]=adc_read(11);
x=adc_read(0);
y=adc_read(1);
inttostr(f[0],send);
uart1_write_text("f0=");
uart1_write_text(send);
uart1_write(13);
IntToStr(f[1],send);
uart1_write_text("f1=");
uart1_write_text(send);
uart1_write(13);
IntToStr(f[2],send);
uart1_write_text("f2=");
uart1_write_text(send);
uart1_write(13);
IntToStr(f[3],send);
uart1_write_text("f3=");
uart1_write_text(send);
uart1_write(13);
IntToStr(f[4],send);
uart1_write_text("f4=");
uart1_write_text(send);
uart1_write(13);
IntToStr(x,send);
uart1_write_text("x=");
uart1_write_text(send);
uart1_write(13);
IntToStr(y,send);
uart1_write_text("y=");
uart1_write_text(send);
uart1_write(13);
delay_ms(1000);
if(f[0]<170&&f[1]<180&&f[2]<180&&f[3]>250)
{
audio(2);
delay_ms(5000);
}
else if(f[0]<170&&f[1]<180&&f[2]<180&&f[3]<170&&rec!='c')
{
audio(1);
delay_ms(5000);
}
else if(f[0]>230&&f[1]>230&&f[2]>230&&f[3]>230&&x<280)
{
audio(3);
delay_ms(5000);
}
else if(f[0]<170&&f[1]<180&&f[2]<180&&f[3]<170&&rec=='c')
{
audio(4);
rec=0;
delay_ms(5000);
}
else if(f[0]>230&&f[1]>230&&f[2]>230&&f[3]>230&&x>350&&rec=='b')
{
audio(5);
rec=0;
delay_ms(5000);
}
}
}
void main()
{
unsigned char i;
unsigned char tmp;
unsigned int tmpi;
unsigned int tout;
char str[6];
ADCON1=0x06;
TRISA=0xC3;
TRISB=0x01;
TRISC=0x01;
TRISD=0x00;
TRISE=0x00;
NOT_RBPU_bit=0;
lcd_init();
UART1_Init(9600);
adc_init();
/*
//dip
TRISB=0x03;
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Ligue todos DIP"));
lcd_cmd(_LCD_SECOND_ROW);
lcd_out_cp(codetxt_to_ramtxt("Press. RB1"));
while(RB1_bit);
*/
//testa caracter especial
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste LCD"));
lcd_cmd(0x40);//endere�o
lcd_chr_cp(0x11);
lcd_chr_cp(0x19);
lcd_chr_cp(0x15);
lcd_chr_cp(0x13);
lcd_chr_cp(0x13);
lcd_chr_cp(0x15);
lcd_chr_cp(0x19);
lcd_chr_cp(0x11);
lcd_chr_cp(0x0E);
lcd_chr_cp(0x11);
lcd_chr_cp(0x0E);
lcd_chr_cp(0x05);
lcd_chr_cp(0x0E);
lcd_chr_cp(0x14);
lcd_chr_cp(0x0A);
lcd_chr_cp(0x11);
lcd_cmd(_LCD_SECOND_ROW);
for(i=0;i<16;i++)
{
lcd_chr_cp(i%2);
delay_ms(100);
}
//teste lcd
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste LCD"));
for(i=32;i<128;i++)
{
if((i%16) == 0)lcd_cmd(_LCD_SECOND_ROW);
lcd_chr_cp(i);
delay_ms(50);
}
delay_ms(100);
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste LCD"));
lcd_cmd(_LCD_SECOND_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Ok"));
delay_ms(500);
//testa display 7s
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste 7 Seg"));
ADCON1=0x06;
for(i=0;i<4;i++)
{
switch(i)
{
case 0:
PORTA=0x20;
break;
case 1:
PORTA=0x10;
break;
case 2:
PORTA=0x08;
break;
case 3:
PORTA=0x04;
break;
}
for(tmp=0;tmp<16;tmp++)
{
PORTD=display7s(tmp);
delay_ms(200);
}
}
ADCON1=0x02;
PORTD=0;
/*
//dip
TRISB=0x03;
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Desligue RTC DIP"));
lcd_cmd(_LCD_SECOND_ROW);
lcd_out_cp(codetxt_to_ramtxt("Press. RB1"));
while(RB1_bit);
*/
//testa LEDs
TRISB=0x00;
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW+3);
lcd_out_cp(codetxt_to_ramtxt("Teste LEDs"));
for(tmp=0;tmp<3;tmp++)
{
for(i=1;i > 0;i=i*2)
{
PORTB=i;
PORTD=i;
delay_ms(200);
}
}
PORTB=0;
PORTD=0;
for(i=0;i<4;i++)
{
PORTB^=0xFF;
PORTD^=0xFF;
delay_ms(200);
}
//testa chaves
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste Chaves"));
tmp=0;
ADCON1=0x06;
TRISA|=0x20;
while((tmp & 0x7F) != 0x7F)
{
TRISB=0x3F;
if(RB0_bit == 0)
{
tmp|=0x01;
}
if(RB1_bit == 0)
{
tmp|=0x02;
}
if(RB2_bit == 0)
{
tmp|=0x04;
}
if(RB3_bit == 0)
{
tmp|=0x08;
}
if(RB4_bit == 0)
{
tmp|=0x10;
}
if(RB5_bit == 0)
{
tmp|=0x20;
}
if(RA5_bit == 0)
{
tmp|=0x40;
}
TRISB=0x00;
PORTB=tmp;
delay_ms(10);
}
delay_ms(500);
PORTB=0;
ADCON1=0x02;
TRISC7_bit=1; //RX
TRISC6_bit=0; //TX
//teste serial
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Teste Serial TX"));
lcd_cmd(_LCD_SECOND_ROW+4);
lcd_out_cp(codetxt_to_ramtxt("9600 8N1"));
uart1_write_text(codetxt_to_ramtxt("\r\n Picsimlab\r\n Teste Serial TX\r\n"));
for(i=0;i<4;i++)
{
uart1_write(i+0x30);
uart1_write_text(codetxt_to_ramtxt(" PicsimLab\r\n"));
}
delay_ms(1000);
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Teste Serial RX"));
uart1_write_text(codetxt_to_ramtxt(" Digite!\r\n"));
for(i=0;i<32;i++)
{
if(!(i%16))
{
lcd_cmd(_LCD_SECOND_ROW);
uart1_write_text(codetxt_to_ramtxt("\r\n"));
}
tout=0;
while((!uart1_data_ready())&&(tout<2000))
{
tout++;
delay_ms(1);
}
if(uart1_data_ready())
{
tmp=uart1_read();
}
else
{
tmp='-';
}
lcd_chr_cp(tmp);
uart1_write(tmp);
}
delay_ms(100);
//teste ADC
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste ADC (P1)"));
for(i=0; i< 200; i++)
{
tmp=(adc_read(0)*10)/204;
lcd_cmd(_LCD_SECOND_ROW+6);
inttostr(tmp,str);
if(str[4] == ' ')
lcd_chr_cp('0');
else
lcd_chr_cp(str[4]);
lcd_chr_cp(',');
lcd_chr_cp(str[5]);
lcd_chr_cp('V');
delay_ms(10);
}
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Teste ADC (P2)"));
for(i=0; i< 200; i++)
{
tmp=((unsigned int)adc_read(1)*10)/204;
lcd_cmd(_LCD_SECOND_ROW+6);
inttostr(tmp,str);
if(str[4] == ' ')
lcd_chr_cp('0');
else
lcd_chr_cp(str[4]);
lcd_chr_cp(',');
lcd_chr_cp(str[5]);
lcd_chr_cp('V');
delay_ms(10);
}
//teste RELE
TRISC0_bit=0;
TRISE0_bit=0;
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Teste RELE 1 2"));
for(i=0;i<5;i++)
{
RC0_bit^=1;
RE0_bit^=1;
delay_ms(500);
}
RC0_bit=0;
RE0_bit=0;
/*
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt("Teste RELE 2"));
for(i=0;i<5;i++)
{
RE0_bit^=1;
delay_ms(500);
}
RE0_bit=0;
*/
//fim teste
lcd_cmd(_LCD_CLEAR);
lcd_cmd(_LCD_FIRST_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Fim"));
/*
lcd_cmd(_LCD_SECOND_ROW);
lcd_out_cp(codetxt_to_ramtxt(" Pressione RST"));
*/
uart1_write_text(codetxt_to_ramtxt("\r\n FIM!\r\n"));
while(1);
}
static void expect(FIL *file){
enum {
INIT,
BEFORE_SEND,
SENDING,
SENDING_ESCAPE,
SENDING_ESCAPE_HEX1,
SENDING_ESCAPE_HEX2,
BEFORE_EXPECT,
EXPECTING,
EXPECT_FAILED,
EXPECT_TIMEOUT,
BEFORE_WAIT,
WAITING,
IGNORE_LINE,
} state = INIT;
char c;
char buf[8];
u8 buf_length, expect_index;
u16 read_size;
telemeter_ready = 0;
while((f_read(file, &c, sizeof(c), &read_size) == FR_OK)
&& (read_size > 0)){
unsigned char is_endline = ((c == '\r') || (c == '\n'));
switch(state){
case INIT:
if(c == '$'){
while(uart1_read(buf, sizeof(buf)) > 0); // clear RX buffer
state = BEFORE_SEND;
}else if(c == '>'){
state = BEFORE_EXPECT;
buf_length = expect_index = 0;
do{
u8 timeout = FALSE;
timeout_10ms = 0;
while(!uart1_read(&c, sizeof(c))){
if(timeout_10ms >= 100){
timeout = TRUE;
break;
}
}
if(timeout){
buf_length = 0;
break;
}else if(c == '\r' || c == '\n'){
if(buf_length > 0){break;}
}else if(buf_length < sizeof(buf)){
buf[buf_length++] = c;
}
}while(1);
}else if(c == '@'){
state = BEFORE_WAIT;
}else if(!isspace(c)){
state = IGNORE_LINE;
}
break;
case BEFORE_SEND:
if(isspace(c)){
if(is_endline){state = INIT;}
break;
}
state = SENDING;
case SENDING:
if(is_endline){
state = INIT;
}else if(c == '\\'){ // escape char
state = SENDING_ESCAPE;
}else{
uart1_write(&c, sizeof(c));
}
break;
case SENDING_ESCAPE:
if(c == 'x'){
state = SENDING_ESCAPE_HEX1;
break;
}
switch(c){
case 'r': c = '\r'; break;
case 'n': c = '\n'; break;
case '\\': c = '\\'; break;
}
uart1_write(&c, sizeof(c));
state = SENDING;
break;
case SENDING_ESCAPE_HEX1:
buf[0] = ((c & 0x0F) + (c >= 'A' ? 10 : 0)) << 4;
state = SENDING_ESCAPE_HEX2;
break;
case SENDING_ESCAPE_HEX2:
buf[0] += ((c & 0x0F) + (c >= 'A' ? 10 : 0));
uart1_write(buf, 1);
state = SENDING;
break;
case BEFORE_EXPECT:
if(isspace(c)){
if(is_endline){state = INIT;} // match any including timeout(buf_length == 0)
break;
}else if(buf_length == 0){
state = EXPECT_TIMEOUT;
return;
}
state = EXPECTING;
case EXPECTING:
if(is_endline){
state = INIT;
}else if(expect_index < buf_length){
if(c != buf[expect_index++]){
state = EXPECT_FAILED;
return;
}
}
break;
case BEFORE_WAIT:
if(isspace(c)){
if(is_endline){state = INIT;}
break;
}
buf_length = 0;
state = WAITING;
case WAITING:
if(is_endline){
buf[buf_length] = '\0';
wait_ms((unsigned int)atol(buf));
state = INIT;
}else if(buf_length < (sizeof(buf) - 1)){
buf[buf_length++] = c;
}
break;
case IGNORE_LINE:
if(is_endline){state = INIT;}
break;
}
}
telemeter_ready = 1;
}