int kernel_main() {
graphics_init();
console_init();
console_printf("video: %d x %d\n", video_xres, video_yres, video_xbytes);
console_printf("kernel: %d bytes\n", kernel_size);
memory_init();
interrupt_init();
rtc_init();
clock_init();
keyboard_init();
/*
process_init() is a big step. This initializes the process table, but also gives us our own process structure, private stack, and enables paging. Now we can do complex things like wait upon events.
*/
process_init();
mouse_init();
ata_init();
console_printf("\nNUNYA READY:\n");
cmd_line_init();
while(1) {
cmd_line_show_prompt();
cmd_line_attempt(keyboard_read_str());
}
return 0;
}
void cmd_line_test(void)
{
// Initialise modules
uart0_init(115200,8,UART0_NO_PARITY,1);
printf_init();
// Enable global interrupts
sei();
// Initialise command line parser and VT100 terminal helper
vt100_init(&main_put_char);
cmd_line_init(&main_put_char);
cmd_line_add (&cmd_line_led, "led",&cmd_line_handler_led, "display status of led");
cmd_line_add_child(&cmd_line_led,&cmd_line_led_on, "on", &cmd_line_handler_led_on, "switch led on" );
cmd_line_add_child(&cmd_line_led,&cmd_line_led_off,"off",&cmd_line_handler_led_off,"switch led off" );
PRINTF("\nCommand Line test\n\n");
for(;;)
{
// Pass all received data to command line parser
if(uart0_get_rx_byte(&data))
{
cmd_line_process(data);
}
}
}
