// This is basically a rewrite of the putp that's supposed to appear in
// term.h, except it uses our "mini buffered IO code" from above
static void putp( char *s )
{
int c;
int pad;
int mand = FALSE;
int i;
char *bbuf;
if( s == NULL )
return;
while( (c = *s++) != '\0' ) {
// check and see if we're at the start of a padding sequence
if( c == '$' && *s == '<' ) {
bbuf = s;
s++;
pad = 0;
// read until the end of the sequence or the end of the string
while( (c = *s++) != '\0' && ( c != '>' ) ) {
// suck up digits
if( c >= '0' && c <= '9' ) {
pad *= 10;
pad += c;
} else if( c == '.' ) {
// Skip tenth's
if( (c = *s) >= '0' && c <= '9' ) {
s++;
// cheap rounding
if( c >= '5' ) {
pad++;
}
}
// Pay attention to the mandatory flag
} else if( c == '/' ) {
mand = TRUE;
}
// Note that I'm completely ignoring the * flag( proportional
// to number of lines padding ). I'm just assuming 1 line
// always. This should work virtually all of the time because
// we don't do anything excessively weird. ( like insert over
// multiple lines )
// Actually, we ignore any extra chars that end up in here.
}
if( c == '>' ) {
// output padding only if required
if( !xon_xoff || mand ) {
mand = FALSE;
for( i = 0; i < pad; i++ ) {
__putchar( pad_char[0] );
}
}
} else {
__putchar( '$' );
__puts( bbuf );
return;
}
} else {
__putchar( c );
}
}
}
int __printf(const char *format, ...) {
char buf[4096];
va_list args;
int ret;
va_start(args, format);
ret = vsnprintf(buf, 4096, format, args);
va_end(args);
__puts((u8*)buf);
return ret;
}
/*---------------------------------------------------------------------*/
void cmd_parsing( void )
{
u8 buff[_CMD_ARGS_ARGC_MAX];
smemset( buff, 0x00, sizeof(buff) );
bool _enter = do_replace_queue( &cmd_queue, _KEY_ENTER_RELEASED, 0 );
get_contents_queue( &cmd_queue, sizeof(buff), buff, sizeof(buff), false );
_set_cmd_args( &_cmd_args, buff );
if( _enter )
do_empty_queue( &cmd_queue );
if( _enter ) {
if( cmd_mode == false ) {
if( strcmp( _get_cmd_arg(&_cmd_args, 0), "cmd" ) == 0 ) {
__puts("ooooooooooooooooooooooooooooooooooooooo");
__puts(" Start Command Mode");
__puts("ooooooooooooooooooooooooooooooooooooooo");
cmd_mode = true;
}
} else {
// view process all
if( strcmp( _get_cmd_arg(&_cmd_args, 0), "PROCALL") == 0 ) {
// __puts("view all process");
#if defined __SDEBUG__
debug_print_proc_all( );
#endif // __SDEBUG__
} else
// kill specific process
if( strcmp( _get_cmd_arg(&_cmd_args, 0), "KILL") == 0 ) {
const u8* _num = _get_cmd_arg(&_cmd_args, 1);
s32 _type = get_number_type( _num );
s32 _pid = 0;
switch( _type ) {
case NUMBER_TYPE_DECIMAL:
_pid = sdtoi( _num );
__puts("number type is decimal");
break;
case NUMBER_TYPE_HEXADECIMAL:
_pid = shtoi( _num );
__puts("number type is hexadecimal");
break;
default :
__puts("none number type");
}
if( _pid ) {
kill( _pid );
}
} else
// help
if( strcmp( _get_cmd_arg(&_cmd_args, 0), "HELP") == 0 ) {
}
}
}
}
void __attribute__((noreturn)) eeload_start() {
void (*entry)();
__puts("EELOAD start\n");
__printf("about to SifInitRpc(0)\n");
SifInitRpc(0);
__printf("done rpc\n");
entry = (void (*)())loadElfFile("INTRO");
entry();
entry = (void (*)())loadElfFile("LOADER");
entry();
for (;;);
}
void CBanner( void )
{
if( CompFlags.banner_printed ) return;
if( CompFlags.quiet_mode ) return;
#if defined( _BETAVER )
__puts( banner1w1( "C++ " _TARGET_ " Optimizing Compiler" ) );
__puts( banner1w2( _WPP_VERSION_ ) );
#else
__puts( banner1w( "C++ " _TARGET_ " Optimizing Compiler", _WPP_VERSION_ ) );
#endif
__puts( banner2 );
__puts( banner2a( "1989" ) );
__puts( banner3 );
__puts( banner3a );
if( Token[0] != '$' ) { /* if finger print present */
__puts( Token ); /* - print it */
}
CompFlags.banner_printed = 1; /* 13-mar-90 */
}
//
// Start Kernel
asmlinkage void start_kernel(void) {
char buf[255];
int _i = 0;
int _diff = 0;
_video_draw_char('O', 79, 10);
_video_draw_char('c', 79, 11);
_video_draw_char('t', 79, 12);
_video_draw_char('a', 79, 13);
_video_draw_char('n', 79, 14);
_video_draw_char('e', 79, 15);
_video_draw_char(' ', 79, 16);
_video_draw_char(' ', 79, 17);
// Draw a banner line of the right side of the screen
for (_i = 0; _i < 10; _i++) { _video_draw_char(' ', 79,_i); }
for (_i = 18; _i < 22; _i++) { _video_draw_char(' ', 79,_i); }
load_misc_kprint();
__sprintf(buf, "=========== Octane ===========\n"); __puts(buf);
__sprintf(buf, "@INFO: Build: %ld; since (10/15/2007) %s\n",
main_get_build_count, main_get_version); __puts(buf);
//memory_end = (1<<20) + (EXT_MEM_K<<10);
// memory_end &= PAGE_MASK;
memory_end = 16*1024*1024;
memory_start = 1024*1024;
low_memory_start = (unsigned long) &_end;
// now lets load the IDT
load_exception_table();
init_interrupts();
sched_init();
load_keyboard_driver();
//memory_start = blk_dev_init(memory_start, memory_end);
sti();
//calibrate_delay();
//memory_start = inode_init(memory_start, memory_end);
//memory_start = file_table_init(memory_start, memory_end);
//mem_init(low_memory_start, memory_start, memory_end);
//buffer_init();
time_init();
// Print the current time.
printk("INFO: current time: %d\n", xtime.tv_sec);
printk("INFO: %d/%d/%d %d:%d\n", cur_simpletime.mon,
cur_simpletime.day, cur_simpletime.year,
cur_simpletime.hour, cur_simpletime.min);
floppy_init();
sti();
//__debug_floppy_open();
//__debug_floppy_release();
test_time_1();
test_block_1();
tests();
for(;;) {
_nop();
}
}