int main( void )
#endif
{
#if __rtems__
rtems_test_begin();
#endif
domath();
#if __rtems__
rtems_test_end();
#endif
exit( 0 );
}
int main( void )
#endif
{
#if __rtems__
rtems_test_begin();
#endif
docomplex();
docomplexf();
docomplexl();
#if __rtems__
rtems_test_end();
#endif
exit( 0 );
}
int main( void )
#endif
{
#if __rtems__
rtems_print_printer_printf(&rtems_test_printer);
rtems_test_begin();
#endif
domathf();
#if __rtems__
rtems_test_end();
#endif
exit( 0 );
}
/*
* RTEMS Startup Task
*/
rtems_task
Init (rtems_task_argument ignored)
{
rtems_status_code sc;
rtems_print_printer_printf(&rtems_test_printer);
rtems_test_begin();
sc = rtems_semaphore_create(rtems_build_name('P','m','t','x'),
1,
RTEMS_PRIORITY|RTEMS_BINARY_SEMAPHORE|RTEMS_INHERIT_PRIORITY|
RTEMS_NO_PRIORITY_CEILING|RTEMS_LOCAL,
0,
&printMutex);
if (sc != RTEMS_SUCCESSFUL)
rtems_panic("Can't create printf mutex:", rtems_status_text(sc));
printf("\"Network\" initializing!\n");
rtems_bsdnet_initialize_network();
printf("\"Network\" initialized!\n");
printf("Try running client with no server present.\n");
printf("Should fail with `connection refused'.\n");
clientWorker(0);
printf("\nStart server.\n");
spawnTask(serverTask, 150, 0);
printf("\nTry running client with server present.\n");
spawnTask(clientTask, 120, 1);
rtems_task_wake_after(500);
printf("\nTry running two clients.\n");
spawnTask(clientTask, 120, 2);
spawnTask(clientTask, 120, 3);
rtems_task_wake_after(500);
printf("\nTry running three clients.\n");
spawnTask(clientTask, 120, 4);
spawnTask(clientTask, 120, 5);
spawnTask(clientTask, 120, 6);
rtems_task_wake_after(500);
rtems_test_end();
exit( 0 );
}
rtems_task Init(
rtems_task_argument ignored
)
{
rtems_status_code sc;
int val;
rtems_test_begin();
/* Initializes the GPIO API */
sc = rtems_gpio_initialize();
assert(sc == RTEMS_SUCCESSFUL);
sc = rtems_gpio_multi_select(test, 4);
assert(sc == RTEMS_SUCCESSFUL);
/* Polls the two switches. */
while ( 1 ) {
val = rtems_gpio_get_value(sw1_pin);
if ( val == 0 ) {
sc = rtems_gpio_set(led2_pin);
assert(sc == RTEMS_SUCCESSFUL);
}
else {
sc = rtems_gpio_clear(led2_pin);
assert(sc == RTEMS_SUCCESSFUL);
}
val = rtems_gpio_get_value(sw2_pin);
if ( val == 0 ) {
sc = rtems_gpio_set(led1_pin);
assert(sc == RTEMS_SUCCESSFUL);
}
else {
sc = rtems_gpio_clear(led1_pin);
assert(sc == RTEMS_SUCCESSFUL);
}
}
rtems_test_end();
exit(0);
}
rtems_task Init(
rtems_task_argument ignored
)
{
/*
* Install whatever optional floating point assistance package
* is required by this CPU.
*/
#if (defined (m68040))
M68KFPSPInstallExceptionHandlers ();
#endif
rtems_print_printer_printf(&rtems_test_printer);
rtems_test_begin();
paranoia(1, args);
rtems_test_end();
exit( 0 );
}
rtems_task Init(rtems_task_argument argument)
{
rtems_status_code status;
rtems_test_begin();
status = rtems_shell_wait_for_input(
STDIN_FILENO,
10,
notification,
NULL
);
if (status != RTEMS_SUCCESSFUL) {
rtems_test_end();
exit( 0 );
}
/* initialize network */
rtems_bsdnet_initialize_network();
rtems_pppd_initialize();
pppdapp_initialize();
rtems_task_delete(RTEMS_SELF);
}
rtems_task Init(rtems_task_argument ignored)
{
int spi_bus;
int rv = 0;
int fd;
char buf[32];
rtems_test_begin ();
spi_bus = rpi_spi_init(false);
assert ( spi_bus >= 0 );
rv = spi_libi2c_register_23k256(spi_bus);
assert ( rv > 0 );
fd = open("/dev/spi.23k256", O_RDWR);
RTEMS_CHECK_RV(fd, "Open /dev/spi.23k256");
rv = write(fd, "This message confirms that RTEMS can send and receive data using the SPI bus to the 23k256 SRAM device!", 104);
assert ( rv > 0 );
printf("\nWrote %d chars\n", rv);
rv = read(fd, buf, 104);
assert ( rv > 0 );
printf("\nRead %d chars\n", rv);
printf("\nRead data -> %s\n\n", buf);
rv = close(fd);
RTEMS_CHECK_RV(rv, "Close /dev/spi.23k256");
rtems_test_end ();
exit ( 0 );
}
static void success(void)
{
rtems_test_end();
rtems_test_exit( 0 );
}
rtems_task Init(rtems_task_argument ignored)
{
int rv = 0;
int val;
int fd;
rtems_test_begin ();
rv = rpi_setup_i2c_bus();
assert ( rv == 0 );
rv = i2c_dev_register_mcp23008(
"/dev/i2c",
"/dev/i2c.mcp23008",
MCP23008_ADDR
);
assert ( rv == 0 );
/* Open the mcp23008 device file */
fd = open("/dev/i2c.mcp23008", O_RDWR);
RTEMS_CHECK_RV(rv, "Open /dev/i2c.mcp23008");
/* Set the mcp23008 gpio pin 4 as an output */
rv = ioctl(fd, MCP23008_CONF_OUTPUT, (void *)(uintptr_t) 4);
RTEMS_CHECK_RV(rv, "mcp23008 gpio conf output");
/* Set the LED connected to the mcp23008 gpio pin 4 off */
rv = ioctl(fd, MCP23008_CLEAR_OUTPUT, (void *)(uintptr_t)4);
RTEMS_CHECK_RV(rv, "mcp23008 gpio clear output");
/* Set the mcp23008 gpio pin 2 as an input */
rv = ioctl(fd, MCP23008_CONF_INPUT, (void *)(uintptr_t) 2);
RTEMS_CHECK_RV(rv, "mcp23008 gpio conf input");
/* Enable the mcp23008 gpio pin 2 pull up */
rv = ioctl(fd, MCP23008_SET_PULLUP, (void *)(uintptr_t) 2);
RTEMS_CHECK_RV(rv, "mcp23008 gpio set pullup");
/* Polls forever the buton conected to the mcp23008 gpio pin 2,
* and lights the LED connected to the mcp23008 gpio pin 4 when the button is pressed.
*/
while ( 1 ) {
val = ioctl(fd, MCP23008_READ_INPUT, (void *)(uintptr_t) 2);
if ( val == 0 ) {
rv = ioctl(fd, MCP23008_SET_OUTPUT, (void *)(uintptr_t) 4);
RTEMS_CHECK_RV(rv, "mcp23008 gpio set output");
}
else {
rv = ioctl(fd, MCP23008_CLEAR_OUTPUT, (void *)(uintptr_t) 4);
RTEMS_CHECK_RV(rv, "mcp23008 gpio clear output");
}
}
rv = close(fd);
RTEMS_CHECK_RV(rv, "Close /dev/i2c.mcp23008");
rtems_test_end();
exit ( 0 );
}
