int main(void) {
int16_t i16_c;
if (_POR) {
i16_b = 0;
_POR = 0;
}
configBasic(HELLO_MSG);
outString("Hello world!\n");
++i16_a;
++i16_b;
++i16_c;
printf("a = %d, b = %d, c = %d\n", i16_a, i16_b, i16_c);
while (1) {
// Do nothing.
// After powering the chip on:
//
// - What is the value of a at this line? Either a number or x if
// unknown.
// - What is the value of b at this line? Either a number or x if
// unknown.
//
// After pressing the MCLR button once:
//
// - What is the value of a at this line? Either a number or x if
// unknown.
// - What is the value of b at this line? Either a number or x if
// unknown.
}
}
// I/O
// ===
int main(void) {
configBasic(HELLO_MSG);
CONFIG_RB14_AS_DIG_OUTPUT();
CONFIG_RB13_AS_DIG_INPUT();
ENABLE_RB13_PULLUP();
while (1) {
}
}
int main(void) {
configBasic(HELLO_MSG);
_LATB15 = 0;
// Initial value of RB15, at this line: 1, 0, X, Z.
while (1) {
DELAY_MS(250);
_LATB15 = !_LATB15;
}
}
int main(void) {
uint8_t u8_c;
configBasic(HELLO_MSG);
while (1) {
u8_c = inChar();
--u8_c;
outChar(u8_c);
}
}
int main(void) {
configBasic(HELLO_MSG);
config_hb_led();
HB_LED = 0;
// Initial value of RB15, at this line: 1, 0, X, Z.
while (1) {
DELAY_MS(250);
HB_LED = !HB_LED;
}
}
int main(void)
{
uint16_t u16_count = 0;
// Initialize.
configBasic(HELLO_MSG);
// After this, only ``B_main()`` can call ``createCoroutines``.
CREATE_COROUTINES(ascocreate);
// Main loop.
while (1) {
printf("Main: iteration %d.\n", u16_count++);
gotoCoroutine(&scostate_A);
}
}
int main(void) {
configBasic(HELLO_MSG);
CONFIG_RB15_AS_DIG_OUTPUT();
ENABLE_RB15_OPENDRAIN();
_LATB15 = 0; // Line A.
// Initial value of RB15, at this line: 1, 0, X, Z.
//
// ALWAYS write to _LATxy, NOT _RBxy.
while (1) {
DELAY_MS(250);
_LATB15 = !_LATB15;
}
// | #42: Value of RB15 at 100 ms: 1, 0, X, Z.
// | #43: Value of RB15 at 300 ms: 1, 0, X, Z.
// | #44: Period of the waveform, in ms?
}
int main (void) {
uint16_t u16_pot1;
float f_pot1;
configBasic(HELLO_MSG);
// make RA0/AN0/VREF+ a digital input to kill the pullup and
// set the TRISA bit, then make it ANALOG so the ADC will work
CONFIG_RB2_AS_ANALOG();
while (1) {
configADC1_ManualCH0(RB2_AN, 31, ADC_12BIT_FLAG );
u16_pot1 = convertADC1();
f_pot1 = 3.30 / ADC_NSTEPS * u16_pot1;
printf("AN0 is 0x%0X or %1.4fV.\n", \
u16_pot1, (double) f_pot1);
DELAY_MS(1500);
} //endof while()
} // endof main()
int main(void)
{
//configure pins. Only need SDO, SCLK since POT is output only
CONFIG_RG8_AS_DIG_OUTPUT(); //use RF3 for SDO
CONFIG_RG6_AS_DIG_OUTPUT(); //use RF6 for SCLK
CONFIG_RG7_AS_DIG_OUTPUT(); //use RF7 for SDI
CONFIG_RF0_AS_DIG_OUTPUT(); //chip select for VDIP1_A
CONFIG_RB9_AS_DIG_OUTPUT(); //chip select for VDIP1_B
configBasic(HELLO_MSG);
outString("Hello world \n");
configHeartbeat(); //heartbeat LED
//config SPI for VDIP1
VDIP_Init();
VDIP_WriteFile("BARBIE.TXT", "THREE IS THE MAGICAL NUMBER. YOUR HUBBY LOVES YOU!");
VDIP_WriteFile("ABCDEF1.TXT", "This is a test.");
VDIP_WriteFile("ABCDEF2.TXT", "This is a test.");
VDIP_WriteFile("ABCDEF3.TXT", "This is a test.");
VDIP_WriteFile("ABCDEF4.TXT", "This is a test.");
VDIP_WriteFile("ABCDEF5.TXT", "This is a test.");
VDIP_WriteFile("ABCDEF.TXT", "This is a test-1.");
VDIP_WriteFile("ABCDEF.TXT", "This is a test-2.");
VDIP_WriteFile("ABCDEF.TXT", "This is a test-3.");
VDIP_WriteFile("ABCDEF.TXT", "This is a test-4.");
// VDIP_ListDir();
while(1){}
return 0;
}
int main(void) {
int16_t i16_c;
configBasic(HELLO_MSG);
outString("Hello world!\n");
++i16_a;
++i16_b;
++i16_c;
printf("a = %d, b = %d, c = %d\n", i16_a, i16_b, i16_c);
while (1) {
// Do nothing.
// After powering the chip on:
//
// 46. What is the value of a at this line? Either a number or x if
// unknown.
// #. What is the value of b at this line? Either a number or x if
// unknown.
// #. What is the value of c at this line? Either a number or x if
// unknown.
}
}
