void
print_banner(void)
{
clearit();
#ifndef SMALL
int n;
if (bootconf.banner[0]) {
for (n = 0; bootconf.banner[n] && n < MAXBANNER; n++)
printf("%s\n", bootconf.banner[n]);
} else {
#endif /* !SMALL */
#ifndef __minix
printf("\n"
">> %s, Revision %s (from NetBSD %s)\n"
">> Memory: %d/%d k\n",
bootprog_name, bootprog_rev, bootprog_kernrev,
getbasemem(), getextmem());
#else
printf("\n"
"--- Welcome to MINIX 3. This is the boot monitor. ---\n"
"Memory: %d/%d k\n",
getbasemem(), getextmem());
#endif
#ifndef SMALL
}
#endif /* !SMALL */
}
static void
print_banner(void)
{
printf("\n");
printf(">> %s, Revision %s\n", bootprog_name, bootprog_rev);
printf(">> (%s, %s)\n", bootprog_maker, bootprog_date);
#if 0
printf(">> Memory: %d/%d k\n", getbasemem(), getextmem());
#endif
}
static void
print_banner(void)
{
int base = getbasemem();
int ext = getextmem();
clearit();
printf("\n"
">> NetBSD/x86 PXE boot, Revision %s (from NetBSD %s)\n"
">> Memory: %d/%d k\n",
bootprog_rev, bootprog_kernrev,
base, ext);
}
void
print_banner(void)
{
clearit();
#ifndef SMALL
int n;
if (bootcfg_info.banner[0]) {
for (n = 0; bootcfg_info.banner[n]
&& n < BOOTCFG_MAXBANNER; n++)
printf("%s\n", bootcfg_info.banner[n]);
} else {
#endif /* !SMALL */
printf("\n"
">> %s, Revision %s (from NetBSD %s)\n"
">> Memory: %d/%d k\n",
bootprog_name, bootprog_rev, bootprog_kernrev,
getbasemem(), getextmem());
#ifndef SMALL
}
#endif /* !SMALL */
}
static int
common_load_kernel(const char *file, u_long *basemem, u_long *extmem,
physaddr_t loadaddr, int floppy, u_long marks[MARK_MAX])
{
int fd;
#ifdef XMS
u_long xmsmem;
physaddr_t origaddr = loadaddr;
#endif
*extmem = getextmem();
*basemem = getbasemem();
#ifdef XMS
if ((getextmem1() == 0) && (xmsmem = checkxms())) {
u_long kernsize;
/*
* With "CONSERVATIVE_MEMDETECT", extmem is 0 because
* getextmem() is getextmem1(). Without, the "smart"
* methods could fail to report all memory as well.
* xmsmem is a few kB less than the actual size, but
* better than nothing.
*/
if (xmsmem > *extmem)
*extmem = xmsmem;
/*
* Get the size of the kernel
*/
marks[MARK_START] = loadaddr;
if ((fd = loadfile(file, marks, COUNT_KERNEL)) == -1)
return EIO;
close(fd);
kernsize = marks[MARK_END];
kernsize = (kernsize + 1023) / 1024;
loadaddr = xmsalloc(kernsize);
if (!loadaddr)
return ENOMEM;
}
#endif
marks[MARK_START] = loadaddr;
if ((fd = loadfile(file, marks,
LOAD_KERNEL & ~(floppy ? LOAD_BACKWARDS : 0))) == -1)
return EIO;
close(fd);
/* Now we know the root fs type, load modules for it. */
if (fsmod != NULL)
module_add(fsmod);
if (fsmod !=NULL && fsmod2 != NULL && strcmp(fsmod, fsmod2) != 0)
module_add(fsmod2);
/*
* Gather some information for the kernel. Do this after the
* "point of no return" to avoid memory leaks.
* (but before DOS might be trashed in the XMS case)
*/
#ifdef PASS_BIOSGEOM
bi_getbiosgeom();
#endif
#ifdef PASS_MEMMAP
bi_getmemmap();
#endif
#ifdef XMS
if (loadaddr != origaddr) {
/*
* We now have done our last DOS IO, so we may
* trash the OS. Copy the data from the temporary
* buffer to its real address.
*/
marks[MARK_START] -= loadaddr;
marks[MARK_END] -= loadaddr;
marks[MARK_SYM] -= loadaddr;
marks[MARK_END] -= loadaddr;
ppbcopy(loadaddr, origaddr, marks[MARK_END]);
}
#endif
marks[MARK_END] = (((u_long) marks[MARK_END] + sizeof(int) - 1)) &
(-sizeof(int));
image_end = marks[MARK_END];
kernel_loaded = true;
return 0;
}