static int
ntfs_mountroot(void)
{
struct mount *mp;
struct lwp *l = curlwp; /* XXX */
int error;
struct ntfs_args args;
if (device_class(root_device) != DV_DISK)
return (ENODEV);
if ((error = vfs_rootmountalloc(MOUNT_NTFS, "root_device", &mp))) {
vrele(rootvp);
return (error);
}
args.flag = 0;
args.uid = 0;
args.gid = 0;
args.mode = 0777;
if ((error = ntfs_mountfs(rootvp, mp, &args, l)) != 0) {
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
return (error);
}
mountlist_append(mp);
(void)ntfs_statvfs(mp, &mp->mnt_stat);
vfs_unbusy(mp, false, NULL);
return (0);
}
void live_entry(int index)
{
// Local variables
char local_name[248];
char local_class[64];
char local_capabilities[64];
//Populate the local variables
strcpy(local_name, dev_cache[index].name);
strcpy(local_class, device_class(dev_cache[index].major_class, dev_cache[index].minor_class));
strcpy(local_capabilities, device_capability(dev_cache[index].flags));
// Let's format these a little nicer
if (!strcmp(local_name, "VOID"))
strcpy(local_name, "No Response");
if (!strcmp(local_class, "VOID"))
strcpy(local_class, "Unclassified");
if (!strcmp(local_capabilities, "VOID"))
strcpy(local_capabilities, "Not Reported");
// Write out log
fprintf(outfile,"%s,", dev_cache[index].time);
fprintf(outfile,"%s,", dev_cache[index].addr);
fprintf(outfile,"%s,", local_name);
fprintf(outfile,"%s,", local_class);
// Last field is variable
if (config.getmanufacturer)
fprintf(outfile,"%s", mac_get_vendor(dev_cache[index].priv_addr));
else
fprintf(outfile,"%s", local_capabilities);
fprintf(outfile,"\n");
}
int
ext2fs_mountroot(void)
{
extern struct vnode *rootvp;
struct m_ext2fs *fs;
struct mount *mp;
struct ufsmount *ump;
int error;
if (device_class(root_device) != DV_DISK)
return ENODEV;
if ((error = vfs_rootmountalloc(MOUNT_EXT2FS, "root_device", &mp))) {
vrele(rootvp);
return error;
}
if ((error = ext2fs_mountfs(rootvp, mp)) != 0) {
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
return error;
}
mountlist_append(mp);
ump = VFSTOUFS(mp);
fs = ump->um_e2fs;
ext2fs_sb_setmountinfo(fs, mp);
(void)ext2fs_statvfs(mp, &mp->mnt_stat);
vfs_unbusy(mp, false, NULL);
setrootfstime((time_t)fs->e2fs.e2fs_wtime);
return 0;
}
int
cd9660_mountroot(void)
{
struct mount *mp;
struct lwp *l = curlwp;
int error;
struct iso_args args;
if (device_class(root_device) != DV_DISK)
return (ENODEV);
if ((error = vfs_rootmountalloc(MOUNT_CD9660, "root_device", &mp))
!= 0) {
vrele(rootvp);
return (error);
}
args.flags = ISOFSMNT_ROOT;
if ((error = iso_mountfs(rootvp, mp, l, &args)) != 0) {
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
return (error);
}
mountlist_append(mp);
(void)cd9660_statvfs(mp, &mp->mnt_stat);
vfs_unbusy(mp, false, NULL);
return (0);
}
input_code input_manager::poll_keyboard_switches()
{
// iterate over devices within each class
input_class &keyboard_class = device_class(DEVICE_CLASS_KEYBOARD);
for (int devnum = 0; devnum < keyboard_class.maxindex(); devnum++)
{
// fetch the device; ignore if nullptr
input_device *device = keyboard_class.device(devnum);
if (device == nullptr)
continue;
// iterate over items within each device
for (input_item_id itemid = ITEM_ID_FIRST_VALID; itemid <= device->maxitem(); ++itemid)
{
input_device_item *item = device->item(itemid);
if (item != nullptr && item->itemclass() == ITEM_CLASS_SWITCH)
{
input_code code = item->code();
if (code_pressed_once(code))
return code;
}
}
}
// if nothing, return an invalid code
return INPUT_CODE_INVALID;
}
void
device_register(device_t dev, void *aux)
{
if ((booted_device == NULL) && (netboot == 1))
if (device_class(dev) == DV_IFNET)
booted_device = dev;
}
static int
is_valid_disk(device_t dv)
{
if (device_class(dv) != DV_DISK)
return (0);
return (device_is_a(dv, "dk") ||
device_is_a(dv, "sd") ||
device_is_a(dv, "wd") ||
device_is_a(dv, "ld") ||
device_is_a(dv, "ed"));
}
/*
* Choose root and swap devices.
*/
void
cpu_rootconf(void)
{
struct prom_n2f *nf;
const char *devname;
findfunc_t find;
char promname[4];
char partname[4];
const char *prompath;
int prom_ctlr, prom_unit, prom_part;
/* Get the PROM boot path and take it apart. */
prompath = prom_getbootpath();
if (prompath == NULL)
prompath = "zz(0,0,0)";
promname[0] = *(prompath++);
promname[1] = *(prompath++);
promname[2] = '\0';
prom_ctlr = prom_unit = prom_part = 0;
if (*prompath == '(' &&
*(prompath = str2hex(++prompath, &prom_ctlr)) == ',' &&
*(prompath = str2hex(++prompath, &prom_unit)) == ',')
(void)str2hex(++prompath, &prom_part);
/* Default to "unknown" */
booted_device = NULL;
booted_partition = 0;
devname = "<unknown>";
partname[0] = '\0';
find = NULL;
/* Do we know anything about the PROM boot device? */
for (nf = prom_dev_table; nf->func; nf++)
if (!strcmp(nf->name, promname)) {
find = nf->func;
break;
}
if (find)
booted_device = (*find)(promname, prom_ctlr, prom_unit);
if (booted_device) {
devname = device_xname(booted_device);
if (device_class(booted_device) == DV_DISK) {
booted_partition = prom_part & 7;
partname[0] = 'a' + booted_partition;
partname[1] = '\0';
}
}
printf("boot device: %s%s\n", devname, partname);
rootconf();
}
void
device_register(struct device *dev, void *aux)
{
if (booted_device != NULL)
return;
if (netboot == 1) {
/* check tlp0 on netboot */
if (device_class(dev) == DV_IFNET &&
device_is_a(dev, "tlp")) {
struct pci_attach_args *pa = aux;
if (pa->pa_bus == 0 &&
pa->pa_device == 7 &&
pa->pa_function == 0)
booted_device = dev;
}
} else {
/* check wd channel and drive */
if (device_class(dev) == DV_DISK &&
device_is_a(dev, "wd")) {
struct ata_device *adev = aux;
int unit;
unit = adev->adev_channel * 2 +
adev->adev_drv_data->drive;
if (unit == bootunit) {
booted_device = dev;
}
}
/*
* XXX Match up MBR boot specification with BSD disklabel
* for root?
*/
booted_partition = 0;
}
}
device_t
device_isa_register(device_t dev, void *aux)
{
/*
* Handle network interfaces here, the attachment information is
* not available driver-independently later.
*
* For disks, there is nothing useful available at attach time.
*/
if (device_class(dev) == DV_IFNET) {
struct btinfo_netif *bin = lookup_bootinfo(BTINFO_NETIF);
if (bin == NULL)
return NULL;
/*
* We don't check the driver name against the device name
* passed by the boot ROM. The ROM should stay usable if
* the driver becomes obsolete. The physical attachment
* information (checked below) must be sufficient to
* identify the device.
*/
if (bin->bus == BI_BUS_ISA &&
device_is_a(device_parent(dev), "isa")) {
struct isa_attach_args *iaa = aux;
/* Compare IO base address */
/* XXXJRT What about multiple IO addrs? */
if (iaa->ia_nio > 0 &&
bin->addr.iobase == iaa->ia_io[0].ir_addr)
return dev;
}
}
#if NACPICA > 0
#if notyet
if (device_is_a(dev, "isa") && acpi_active) {
if (!(AcpiGbl_FADT.BootFlags & ACPI_FADT_LEGACY_DEVICES))
prop_dictionary_set_bool(device_properties(dev),
"no-legacy-devices", true);
}
#endif
#endif /* NACPICA > 0 */
return NULL;
}
int
msdosfs_mountroot(void)
{
struct mount *mp;
struct lwp *l = curlwp; /* XXX */
int error;
struct msdosfs_args args;
if (device_class(root_device) != DV_DISK)
return (ENODEV);
if ((error = vfs_rootmountalloc(MOUNT_MSDOS, "root_device", &mp))) {
vrele(rootvp);
return (error);
}
args.flags = MSDOSFSMNT_VERSIONED;
args.uid = 0;
args.gid = 0;
args.mask = 0777;
args.version = MSDOSFSMNT_VERSION;
args.dirmask = 0777;
if ((error = msdosfs_mountfs(rootvp, mp, l, &args)) != 0) {
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
return (error);
}
if ((error = update_mp(mp, &args)) != 0) {
(void)msdosfs_unmount(mp, 0);
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
vrele(rootvp);
return (error);
}
mountlist_append(mp);
(void)msdosfs_statvfs(mp, &mp->mnt_stat);
vfs_unbusy(mp, false, NULL);
return (0);
}
int
ext2fs_mountroot(void)
{
// printf("ext2fs_mountroot\n");
extern struct vnode *rootvp;
struct m_ext2fs *fs;
struct mount *mp;
struct ufsmount *ump;
int error;
if (device_class(root_device) != DV_DISK)
return (ENODEV);
if ((error = vfs_rootmountalloc(MOUNT_EXT2FS, "root_device", &mp))) {
vrele(rootvp);
return (error);
}
if ((error = ext2fs_mountfs(rootvp, mp)) != 0) {
vfs_unbusy(mp, false, NULL);
vfs_destroy(mp);
return (error);
}
mountlist_append(mp);
ump = VFSTOUFS(mp);
fs = ump->um_e2fs;
memset(fs->e2fs_fsmnt, 0, sizeof(fs->e2fs_fsmnt));
(void) copystr(mp->mnt_stat.f_mntonname, fs->e2fs_fsmnt,
sizeof(fs->e2fs_fsmnt) - 1, 0);
if (fs->e2fs.e2fs_rev > E2FS_REV0) {
memset(fs->e2fs.e2fs_fsmnt, 0, sizeof(fs->e2fs.e2fs_fsmnt));
(void) copystr(mp->mnt_stat.f_mntonname, fs->e2fs.e2fs_fsmnt,
sizeof(fs->e2fs.e2fs_fsmnt) - 1, 0);
}
(void)ext2fs_statvfs(mp, &mp->mnt_stat);
vfs_unbusy(mp, false, NULL);
setrootfstime((time_t)fs->e2fs.e2fs_wtime);
return (0);
}
int
#define struct
ext2fs_mountroot(struct mount *mp)
{
struct vnode *rootvp;
#undef struct
struct m_ext2fs *fs;
// struct mount *mp;
int error;
DEBUG ((EFI_D_INFO, "mountroot 1\n"));
if (device_class(root_device) != DV_DISK)
return (ENONDEV);
DEBUG ((EFI_D_INFO, "mountroot 2\n"));
if ((error = vfs_rootmountalloc(MOUNT_EXT2FS, "root_device", &mp))) {
vrele(rootvp);
return (error);
}
DEBUG ((EFI_D_INFO, "mountroot 3\n"));
if ((error = ext2fs_mountfs(rootvp, mp)) != 0) {
vfs_unbusy(mp,false,NULL);
vfs_destroy(mp);
return (error);
}
DEBUG ((EFI_D_INFO, "mountroot 4\n"));
fs = mp->fs;
memset(fs->e2fs_fsmnt, 0, sizeof(fs->e2fs_fsmnt));
(void) copystr(mp->f_mntonname, fs->e2fs_fsmnt,
sizeof(fs->e2fs_fsmnt) - 1, 0);
if (fs->e2fs.e2fs_rev > E2FS_REV0) {
memset(fs->e2fs.e2fs_fsmnt, 0, sizeof(fs->e2fs.e2fs_fsmnt));
(void) copystr(mp->f_mntonname, fs->e2fs.e2fs_fsmnt,
sizeof(fs->e2fs.e2fs_fsmnt) - 1, 0);
}
vfs_unbusy(mp, false, NULL);
return (0);
static void
findroot(void)
{
device_t dv;
deviter_t di;
if (booted_device)
return;
if ((booted_device == NULL) && netboot == 0) {
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST); dv != NULL;
dv = deviter_next(&di)) {
if (device_class(dv) == DV_DISK &&
device_is_a(dv, "wd"))
booted_device = dv;
}
deviter_release(&di);
}
/*
* XXX Match up MBR boot specification with BSD disklabel for root?
*/
booted_partition = 0;
}
static void
setbootdev(void)
{
struct dev_data *cdd, *dd;
int type, ctlr;
/*
* Note our magic numbers for type:
*
* 0 == ct
* 2 == rd
* 4 == sd
* 6 == le
*
* Allare bdevsw major numbers, except for le, which
* is just special.
*
* We can't mount root on a tape, so we ignore those.
*/
/*
* Start with a clean slate.
*/
bootdev = 0;
/*
* If the root device is network, we're done
* early.
*/
if (device_class(root_device) == DV_IFNET) {
bootdev = MAKEBOOTDEV(6, 0, 0, 0, 0);
goto out;
}
/*
* Determine device type.
*/
if (device_is_a(root_device, "rd"))
type = 2;
else if (device_is_a(root_device, "sd"))
type = 4;
else if (device_is_a(root_device, "md"))
goto out;
else {
printf("WARNING: strange root device!\n");
goto out;
}
dd = dev_data_lookup(root_device);
/*
* Get parent's info.
*/
switch (type) {
case 2: /* rd */
case 4: /* sd */
/*
* "rd" -> "hpibbus" -> "fhpib"
* "sd" -> "scsibus" -> "spc"
*/
for (cdd = LIST_FIRST(&dev_data_list_hpib), ctlr = 0;
cdd != NULL; cdd = LIST_NEXT(cdd, dd_clist), ctlr++) {
if (cdd->dd_dev ==
device_parent(device_parent(root_device))) {
/*
* Found it!
*/
bootdev = MAKEBOOTDEV(type,
ctlr, dd->dd_slave, dd->dd_punit,
DISKPART(rootdev));
break;
}
}
break;
}
out:
/* Don't need this anymore. */
for (dd = LIST_FIRST(&dev_data_list); dd != NULL; ) {
cdd = dd;
dd = LIST_NEXT(dd, dd_list);
free(cdd, M_DEVBUF);
}
}
static void
findbootdev(void)
{
int type, ctlr, slave, punit, part;
int scsiboot, hpibboot, netboot;
struct dev_data *dd;
booted_device = NULL;
booted_partition = 0;
if ((bootdev & B_MAGICMASK) != B_DEVMAGIC)
return;
type = B_TYPE(bootdev);
ctlr = B_ADAPTOR(bootdev);
slave = B_CONTROLLER(bootdev);
punit = B_UNIT(bootdev);
part = B_PARTITION(bootdev);
scsiboot = (type == 4); /* sd major */
hpibboot = (type == 0 || type == 2); /* ct/rd major */
netboot = (type == 6); /* le - special */
/*
* Check for network boot first, since it's a little
* different. The BOOTROM/boot program can only boot
* off of the first (lowest select code) ethernet
* device. device_register() knows this and only
* registers one DV_IFNET. This is a safe assumption
* since the code that finds devices on the DIO bus
* always starts at scode 0 and works its way up.
*/
if (netboot) {
for (dd = LIST_FIRST(&dev_data_list); dd != NULL;
dd = LIST_NEXT(dd, dd_list)) {
if (device_class(dd->dd_dev) == DV_IFNET) {
/*
* Found it!
*/
booted_device = dd->dd_dev;
break;
}
}
return;
}
/*
* Check for HP-IB boots next.
*/
if (hpibboot) {
findbootdev_slave(&dev_data_list_hpib, ctlr,
slave, punit);
if (booted_device == NULL)
return;
/*
* Sanity check.
*/
if ((type == 0 && !device_is_a(booted_device, "ct")) ||
(type == 2 && !device_is_a(booted_device, "rd"))) {
printf("WARNING: boot device/type mismatch!\n");
printf("device = %s, type = %d\n",
booted_device->dv_xname, type);
booted_device = NULL;
}
goto out;
}
/*
* Check for SCSI boots last.
*/
if (scsiboot) {
findbootdev_slave(&dev_data_list_scsi, ctlr,
slave, punit);
if (booted_device == NULL)
return;
/*
* Sanity check.
*/
if ((type == 4 && !device_is_a(booted_device, "sd"))) {
printf("WARNING: boot device/type mismatch!\n");
printf("device = %s, type = %d\n",
booted_device->dv_xname, type);
booted_device = NULL;
}
goto out;
}
/* Oof! */
printf("WARNING: UNKNOWN BOOT DEVICE TYPE = %d\n", type);
out:
if (booted_device != NULL)
booted_partition = part;
}
/*
* Register a device. We're passed the device and the arguments
* used to attach it. This is used to find the boot device.
*/
void
device_register(struct device *dev, void *aux)
{
struct dev_data *dd;
static int seen_netdevice = 0;
/*
* Allocate a dev_data structure and fill it in.
* This means making some tests twice, but we don't
* care; this doesn't really have to be fast.
*
* Note that we only really care about devices that
* we can mount as root.
*/
dd = malloc(sizeof(struct dev_data), M_DEVBUF, M_NOWAIT | M_ZERO);
if (dd == NULL)
panic("device_register: can't allocate dev_data");
dd->dd_dev = dev;
/*
* BOOTROM and boot program can really only understand
* using the lowest select code network interface,
* so we ignore all but the first.
*/
if (device_class(dev) == DV_IFNET && seen_netdevice == 0) {
struct dio_attach_args *da = aux;
seen_netdevice = 1;
dd->dd_scode = da->da_scode;
goto linkup;
}
if (device_is_a(dev, "fhpib") ||
device_is_a(dev, "nhpib") ||
device_is_a(dev, "spc")) {
struct dio_attach_args *da = aux;
dd->dd_scode = da->da_scode;
goto linkup;
}
if (device_is_a(dev, "rd")) {
struct hpibbus_attach_args *ha = aux;
dd->dd_slave = ha->ha_slave;
dd->dd_punit = ha->ha_punit;
goto linkup;
}
if (device_is_a(dev, "sd")) {
struct scsipibus_attach_args *sa = aux;
dd->dd_slave = sa->sa_periph->periph_target;
dd->dd_punit = sa->sa_periph->periph_lun;
goto linkup;
}
/*
* Didn't need the dev_data.
*/
free(dd, M_DEVBUF);
return;
linkup:
LIST_INSERT_HEAD(&dev_data_list, dd, dd_list);
if (device_is_a(dev, "fhpib") ||
device_is_a(dev, "nhpib")) {
dev_data_insert(dd, &dev_data_list_hpib);
return;
}
if (device_is_a(dev, "spc")) {
dev_data_insert(dd, &dev_data_list_scsi);
return;
}
}
void
cpu_rootconf(void)
{
struct dev_data *dd;
struct device *dv;
struct vfsops *vops;
/*
* Find boot device.
*/
if ((bootdev & B_MAGICMASK) != B_DEVMAGIC) {
printf("WARNING: boot program didn't supply boot device.\n");
printf("Please update your boot program.\n");
} else {
findbootdev();
if (booted_device == NULL) {
printf("WARNING: can't find match for bootdev:\n");
printf(
"type = %d, ctlr = %d, slave = %d, punit = %d, part = %d\n",
B_TYPE(bootdev), B_ADAPTOR(bootdev),
B_CONTROLLER(bootdev), B_UNIT(bootdev),
B_PARTITION(bootdev));
bootdev = 0; /* invalidate bootdev */
} else {
printf("boot device: %s\n", booted_device->dv_xname);
}
}
dv = booted_device;
/*
* If wild carded root device and wired down NFS root file system,
* pick the network interface device to use.
*/
if (rootspec == NULL) {
vops = vfs_getopsbyname("nfs");
if (vops != NULL && vops->vfs_mountroot == mountroot) {
for (dd = LIST_FIRST(&dev_data_list);
dd != NULL; dd = LIST_NEXT(dd, dd_list)) {
if (device_class(dd->dd_dev) == DV_IFNET) {
/* Got it! */
dv = dd->dd_dev;
break;
}
}
if (dd == NULL) {
printf("no network interface for NFS root");
dv = NULL;
}
}
}
/*
* If bootdev is bogus, ask the user anyhow.
*/
if (bootdev == 0)
boothowto |= RB_ASKNAME;
/*
* If we booted from tape, ask the user.
*/
if (booted_device != NULL && device_class(booted_device) == DV_TAPE)
boothowto |= RB_ASKNAME;
setroot(dv, booted_partition);
/*
* Set bootdev based on what we found as the root.
* This is given to the boot program when we reboot.
*/
setbootdev();
}
void
device_register(device_t dev, void *aux)
{
#if NPCI > 0
static bool found_console = false;
struct pci_attach_args *paa = aux;
#endif
/*
* Handle network interfaces here, the attachment information is
* not available driver-independently later.
*
* For disks, there is nothing useful available at attach time.
*/
if (device_class(dev) == DV_IFNET) {
struct btinfo_netif *bin = lookup_bootinfo(BTINFO_NETIF);
if (bin == NULL)
return;
/*
* We don't check the driver name against the device name
* passed by the boot ROM. The ROM should stay usable if
* the driver becomes obsolete. The physical attachment
* information (checked below) must be sufficient to
* idenfity the device.
*/
if (bin->bus == BI_BUS_ISA &&
device_is_a(device_parent(dev), "isa")) {
struct isa_attach_args *iaa = aux;
/* Compare IO base address */
/* XXXJRT What about multiple IO addrs? */
if (iaa->ia_nio > 0 &&
bin->addr.iobase == iaa->ia_io[0].ir_addr)
goto found;
}
#if NPCI > 0
if (bin->bus == BI_BUS_PCI &&
device_is_a(device_parent(dev), "pci")) {
int b, d, f;
/*
* Calculate BIOS representation of:
*
* <bus,device,function>
*
* and compare.
*/
pci_decompose_tag(paa->pa_pc, paa->pa_tag, &b, &d, &f);
if (bin->addr.tag == ((b << 8) | (d << 3) | f))
goto found;
}
#endif /* NPCI > 0 */
}
#if NISA > 0 && NACPICA > 0
#if notyet
if (device_is_a(dev, "isa") && acpi_active) {
if (!(AcpiGbl_FADT.BootFlags & ACPI_FADT_LEGACY_DEVICES))
prop_dictionary_set_bool(device_properties(dev),
"no-legacy-devices", true);
}
#endif
#endif /* NISA > 0 && NACPICA > 0 */
#if NPCI > 0
if (device_parent(dev) && device_is_a(device_parent(dev), "pci") &&
found_console == false) {
struct btinfo_framebuffer *fbinfo;
struct pci_attach_args *pa = aux;
prop_dictionary_t dict;
#if NACPICA > 0
struct genfb_parameter_callback *gpc;
int b, d, f;
#endif
if (PCI_CLASS(pa->pa_class) == PCI_CLASS_DISPLAY) {
#if NWSDISPLAY > 0 && NGENFB > 0
extern struct vcons_screen x86_genfb_console_screen;
struct rasops_info *ri;
ri = &x86_genfb_console_screen.scr_ri;
#endif
fbinfo = lookup_bootinfo(BTINFO_FRAMEBUFFER);
dict = device_properties(dev);
/*
* framebuffer drivers other than genfb can work
* without the address property
*/
if (fbinfo != NULL) {
if (fbinfo->physaddr != 0) {
prop_dictionary_set_uint32(dict, "width",
fbinfo->width);
prop_dictionary_set_uint32(dict, "height",
fbinfo->height);
prop_dictionary_set_uint8(dict, "depth",
fbinfo->depth);
prop_dictionary_set_uint16(dict, "linebytes",
fbinfo->stride);
prop_dictionary_set_uint64(dict, "address",
fbinfo->physaddr);
#if NWSDISPLAY > 0 && NGENFB > 0
if (ri->ri_bits != NULL) {
prop_dictionary_set_uint64(dict,
"virtual_address",
(vaddr_t)ri->ri_bits);
}
#endif
}
#if notyet
prop_dictionary_set_bool(dict, "splash",
fbinfo->flags & BI_FB_SPLASH ?
true : false);
#endif
if (fbinfo->depth == 8) {
gfb_cb.gcc_cookie = NULL;
gfb_cb.gcc_set_mapreg =
x86_genfb_set_mapreg;
prop_dictionary_set_uint64(dict,
"cmap_callback",
(uint64_t)(uintptr_t)&gfb_cb);
}
if (fbinfo->physaddr != 0) {
mode_cb.gmc_setmode = x86_genfb_setmode;
prop_dictionary_set_uint64(dict,
"mode_callback",
(uint64_t)(uintptr_t)&mode_cb);
}
#if NWSDISPLAY > 0 && NGENFB > 0
if (device_is_a(dev, "genfb")) {
x86_genfb_set_console_dev(dev);
#ifdef DDB
db_trap_callback =
x86_genfb_ddb_trap_callback;
#endif
}
#endif
}
prop_dictionary_set_bool(dict, "is_console", true);
prop_dictionary_set_bool(dict, "clear-screen", false);
#if NWSDISPLAY > 0 && NGENFB > 0
prop_dictionary_set_uint16(dict, "cursor-row",
x86_genfb_console_screen.scr_ri.ri_crow);
#endif
#if notyet
prop_dictionary_set_bool(dict, "splash",
fbinfo->flags & BI_FB_SPLASH ? true : false);
#endif
pmf_cb.gpc_suspend = x86_genfb_suspend;
pmf_cb.gpc_resume = x86_genfb_resume;
prop_dictionary_set_uint64(dict,
"pmf_callback", (uint64_t)(uintptr_t)&pmf_cb);
#if NACPICA > 0
pci_decompose_tag(paa->pa_pc, paa->pa_tag, &b, &d, &f);
gpc = acpidisp_md_out_find(b, d, f);
if (gpc != NULL)
prop_dictionary_set_uint64(dict,
"brightness_callback", (uint64_t)(vaddr_t)gpc);
#endif
#ifdef VGA_POST
vga_posth = vga_post_init(pa->pa_bus, pa->pa_device,
pa->pa_function);
#endif
found_console = true;
return;
}
}
#endif
return;
found:
if (booted_device) {
/* XXX should be a panic() */
printf("WARNING: double match for boot device (%s, %s)\n",
device_xname(booted_device), device_xname(dev));
return;
}
booted_device = dev;
}
/*
* Attempt to find the device from which we were booted. If we can do so,
* and not instructed not to do so, change rootdev to correspond to the
* load device.
*/
static void
findroot(void)
{
struct btinfo_rootdevice *biv;
struct btinfo_bootdisk *bid;
struct btinfo_bootwedge *biw;
struct btinfo_biosgeom *big;
device_t dv;
deviter_t di;
if (booted_device)
return;
if (lookup_bootinfo(BTINFO_NETIF) != NULL) {
/*
* We got netboot interface information, but device_register()
* failed to match it to a configured device. Boot disk
* information cannot be present at the same time, so give
* up.
*/
printf("%s: netboot interface not found.\n", __func__);
return;
}
if ((biv = lookup_bootinfo(BTINFO_ROOTDEVICE)) != NULL) {
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST);
dv != NULL;
dv = deviter_next(&di)) {
cfdata_t cd;
size_t len;
if (device_class(dv) != DV_DISK)
continue;
cd = device_cfdata(dv);
len = strlen(cd->cf_name);
if (strncmp(cd->cf_name, biv->devname, len) == 0 &&
biv->devname[len] - '0' == device_unit(dv)) {
booted_device = dv;
booted_partition = biv->devname[len + 1] - 'a';
booted_nblks = 0;
break;
}
}
DPRINTF(("%s: BTINFO_ROOTDEVICE %s\n", __func__,
booted_device ? device_xname(booted_device) : "not found"));
deviter_release(&di);
if (dv != NULL)
return;
}
bid = lookup_bootinfo(BTINFO_BOOTDISK);
biw = lookup_bootinfo(BTINFO_BOOTWEDGE);
if (biw != NULL) {
/*
* Scan all disk devices for ones that match the passed data.
* Don't break if one is found, to get possible multiple
* matches - for problem tracking. Use the first match anyway
* because lower devices numbers are more likely to be the
* boot device.
*/
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST);
dv != NULL;
dv = deviter_next(&di)) {
if (is_valid_disk(dv)) {
/*
* Don't trust BIOS device numbers, try
* to match the information passed by the
* boot loader instead.
*/
if ((biw->biosdev & 0x80) == 0 ||
match_bootwedge(dv, biw) == 0)
continue;
goto bootwedge_found;
}
continue;
bootwedge_found:
if (booted_device) {
dmatch(__func__, dv);
continue;
}
booted_device = dv;
booted_partition = bid != NULL ? bid->partition : 0;
booted_nblks = biw->nblks;
booted_startblk = biw->startblk;
}
deviter_release(&di);
DPRINTF(("%s: BTINFO_BOOTWEDGE %s\n", __func__,
booted_device ? device_xname(booted_device) : "not found"));
if (booted_nblks)
return;
}
if (bid != NULL) {
/*
* Scan all disk devices for ones that match the passed data.
* Don't break if one is found, to get possible multiple
* matches - for problem tracking. Use the first match anyway
* because lower device numbers are more likely to be the
* boot device.
*/
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST);
dv != NULL;
dv = deviter_next(&di)) {
if (device_is_a(dv, "fd") &&
device_class(dv) == DV_DISK) {
/*
* Assume the configured unit number matches
* the BIOS device number. (This is the old
* behavior.) Needs some ideas how to handle
* the BIOS's "swap floppy drive" options.
*/
/* XXX device_unit() abuse */
if ((bid->biosdev & 0x80) != 0 ||
device_unit(dv) != bid->biosdev)
continue;
goto bootdisk_found;
}
if (is_valid_disk(dv)) {
/*
* Don't trust BIOS device numbers, try
* to match the information passed by the
* boot loader instead.
*/
if ((bid->biosdev & 0x80) == 0 ||
match_bootdisk(dv, bid) == 0)
continue;
goto bootdisk_found;
}
continue;
bootdisk_found:
if (booted_device) {
dmatch(__func__, dv);
continue;
}
booted_device = dv;
booted_partition = bid->partition;
booted_nblks = 0;
}
deviter_release(&di);
DPRINTF(("%s: BTINFO_BOOTDISK %s\n", __func__,
booted_device ? device_xname(booted_device) : "not found"));
if (booted_device)
return;
/*
* No booted device found; check CD-ROM boot at last.
*
* Our bootloader assumes CD-ROM boot if biosdev is larger
* or equal than the number of hard drives recognized by the
* BIOS. The number of drives can be found in BTINFO_BIOSGEOM
* here. For example, if we have wd0, wd1, and cd0:
*
* big->num = 2 (for wd0 and wd1)
* bid->biosdev = 0x80 (wd0)
* bid->biosdev = 0x81 (wd1)
* bid->biosdev = 0x82 (cd0)
*
* See src/sys/arch/i386/stand/boot/devopen.c and
* src/sys/arch/i386/stand/lib/bootinfo_biosgeom.c .
*/
if ((big = lookup_bootinfo(BTINFO_BIOSGEOM)) != NULL &&
bid->biosdev >= 0x80 + big->num) {
/*
* XXX
* There is no proper way to detect which unit is
* recognized as a bootable CD-ROM drive by the BIOS.
* Assume the first unit is the one.
*/
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST);
dv != NULL;
dv = deviter_next(&di)) {
if (device_class(dv) == DV_DISK &&
device_is_a(dv, "cd")) {
booted_device = dv;
booted_partition = 0;
booted_nblks = 0;
break;
}
}
deviter_release(&di);
DPRINTF(("%s: BTINFO_BIOSGEOM %s\n", __func__,
booted_device ? device_xname(booted_device) :
"not found"));
}
}
}
int main(int argc, char *argv[])
{
// Handle signals
signal(SIGINT,shut_down);
signal(SIGHUP,shut_down);
signal(SIGTERM,shut_down);
signal(SIGQUIT,shut_down);
// HCI device number, MAC struct
int device = 0;
bdaddr_t bdaddr;
bacpy(&bdaddr, BDADDR_ANY);
// Time to scan. Scan time is roughly 1.28 seconds * scan_window
// Originally this was always 8, now we adjust based on device:
#ifdef OPENWRT
int scan_window = 8;
#elif PWNPLUG
int scan_window = 5;
#else
int scan_window = 3;
#endif
// Maximum number of devices per scan
int max_results = 255;
int num_results;
// Device cache and index
int cache_index = 0;
// HCI cache setting
int flags = IREQ_CACHE_FLUSH;
// Strings to hold MAC and name
char addr[19] = {0};
char addr_buff[19] = {0};
// String for time
char cur_time[20];
// Process ID read from PID file
int ext_pid;
// Pointers to filenames
char *infofilename = LIVE_INF;
// Change default filename based on date
char OUT_FILE[1000] = OUT_PATH;
strncat(OUT_FILE, file_timestamp(),sizeof(OUT_FILE)-strlen(OUT_FILE)-1);
char *outfilename = OUT_FILE;
// Mode to open output file in
char *filemode = "a+";
// Output buffer
char outbuffer[500];
// Buffer for data from the second loop
char exitbuffer[500];
// Misc Variables
int i, ri, opt;
// Record numbner of BlueZ errors
int error_count = 0;
// Current epoch time
long long int epoch;
// Kernel version info
struct utsname sysinfo;
uname(&sysinfo);
while ((opt=getopt_long(argc,argv,"+o:i:r:a:w:vxctghldbfenksmq", main_options, NULL)) != EOF)
{
switch (opt)
{
case 'i':
if (!strncasecmp(optarg, "hci", 3))
hci_devba(atoi(optarg + 3), &bdaddr);
else
str2ba(optarg, &bdaddr);
break;
case 'o':
outfilename = strdup(optarg);
break;
case 'r':
config.retry_count = atoi(optarg);
break;
case 'a':
config.amnesia = atoi(optarg);
break;
case 'w':
config.scan_window = round((atoi(optarg) / 1.28));
break;
case 'c':
config.showclass = 1;
break;
case 'e':
config.encode = 1;
break;
case 'f':
config.friendlyclass = 1;
break;
case 'v':
config.verbose = 1;
break;
case 'g':
config.status = 1;
break;
case 't':
config.showtime = 1;
break;
case 's':
config.syslogonly = 1;
break;
case 'x':
config.obfuscate = 1;
break;
case 'q':
config.quiet = 1;
break;
case 'l':
if(!LIVEMODE)
{
printf("Live mode has been disabled in this build. See documentation.\n");
exit(0);
}
else
config.bluelive = 1;
break;
case 'b':
config.bluepropro = 1;
break;
case 'd':
config.daemon = 1;
break;
case 'n':
config.getname = 1;
break;
case 'm':
if(!OUILOOKUP)
{
printf("Manufacturer lookups have been disabled in this build. See documentation.\n");
exit(0);
}
else
config.getmanufacturer = 1;
break;
case 'h':
help();
exit(0);
case 'k':
// Read PID from file into variable
ext_pid = read_pid();
if (ext_pid != 0)
{
printf("Killing Bluelog process with PID %i...",ext_pid);
if(kill(ext_pid,15) != 0)
{
printf("ERROR!\n");
printf("Unable to kill Bluelog process. Check permissions.\n");
exit(1);
}
else
printf("OK.\n");
// Delete PID file
unlink(PID_FILE);
}
else
printf("No running Bluelog process found.\n");
exit(0);
default:
printf("Unknown option. Use -h for help, or see README.\n");
exit(1);
}
}
// See if there is already a process running
if (read_pid() != 0)
{
printf("Another instance of Bluelog is already running!\n");
printf("Use the -k option to kill a running Bluelog process.\n");
exit(1);
}
// Load config from file if no options given on command line
if(cfg_exists() && argc == 1)
{
if (cfg_read() != 0)
{
printf("Error opening config file!\n");
exit(1);
}
// Put interface into BT struct
hci_devba(config.hci_device, &bdaddr);
}
// Perform sanity checks on varibles
cfg_check();
// Setup libmackerel
mac_init();
// Boilerplate
if (!config.quiet)
{
printf("%s (v%s%s) by MS3FGX\n", APPNAME, VERSION, VER_MOD);
#if defined OPENWRT || PWNPLUG
printf("----");
#endif
printf("---------------------------\n");
}
// Show notification we loaded config from file
if(cfg_exists() && argc == 1 && !config.quiet)
printf("Config loaded from: %s\n", CFG_FILE);
// Init Hardware
ba2str(&bdaddr, config.addr);
if (!strcmp(config.addr, "00:00:00:00:00:00"))
{
if (!config.quiet)
printf("Autodetecting device...");
device = hci_get_route(NULL);
// Put autodetected device MAC into addr
hci_devba(device, &bdaddr);
ba2str(&bdaddr, config.addr);
}
else
{
if (!config.quiet)
printf("Initializing device...");
device = hci_devid(config.addr);
}
// Open device and catch errors
config.bt_socket = hci_open_dev(device);
if (device < 0 || config.bt_socket < 0)
{
// Failed to open device, that can't be good
printf("\n");
printf("Error initializing Bluetooth device!\n");
exit(1);
}
// If we get here the device should be online.
if (!config.quiet)
printf("OK\n");
// Status message for BPP
if (!config.quiet)
if (config.bluepropro)
printf("Output formatted for BlueProPro.\n"
"More Info: www.hackfromacave.com\n");
// Open socket
if (config.udponly)
open_udp_socket();
// Open output file, unless in networking mode
if (!config.syslogonly && !config.udponly)
{
if (config.bluelive)
{
// Change location of output file
outfilename = LIVE_OUT;
filemode = "w";
if (!config.quiet)
printf("Starting Bluelog Live...\n");
}
if (!config.quiet)
printf("Opening output file: %s...", outfilename);
if ((outfile = fopen(outfilename, filemode)) == NULL)
{
printf("\n");
printf("Error opening output file!\n");
exit(1);
}
if (!config.quiet)
printf("OK\n");
}
else
if (!config.quiet)
printf("Network mode enabled, not creating log file.\n");
// Open status file
if (config.bluelive)
{
if (!config.quiet)
printf("Opening info file: %s...", infofilename);
if ((infofile = fopen(infofilename,"w")) == NULL)
{
printf("\n");
printf("Error opening info file!\n");
exit(1);
}
if (!config.quiet)
printf("OK\n");
}
// Write PID file
if (!config.daemon)
write_pid(getpid());
// Get and print time to console and file
strcpy(cur_time, get_localtime());
if (!config.daemon)
printf("Scan started at [%s] on %s\n", cur_time, config.addr);
if (config.showtime && (outfile != NULL))
{
fprintf(outfile,"[%s] Scan started on %s\n", cur_time, config.addr);
// Make sure this gets written out
fflush(outfile);
}
// Write info file for Bluelog Live
if (config.bluelive)
{
fprintf(infofile,"<div class=\"sideitem\">%s Version: %s%s</div>\n", APPNAME, VERSION, VER_MOD);
fprintf(infofile,"<div class=\"sideitem\">Device: %s</div>\n", config.addr);
fprintf(infofile,"<div class=\"sideitem\">Started: %s</div>\n", cur_time);
// Think we are done with you now
fclose(infofile);
}
// Log success to this point
syslog(LOG_INFO,"Init OK!");
// Daemon switch
if (config.daemon)
daemonize();
else
if (!config.quiet)
#if defined PWNPAD
printf("Close this window to end scan.\n");
#else
printf("Hit Ctrl+C to end scan.\n");
#endif
// Init result struct
results = (inquiry_info*)malloc(max_results * sizeof(inquiry_info));
// Start scan, be careful with this infinite loop...
for(;;)
{
// Flush results buffer
memset(results, '\0', max_results * sizeof(inquiry_info));
// Scan and return number of results
num_results = hci_inquiry(device, scan_window, max_results, NULL, &results, flags);
// A negative number here means an error during scan
if(num_results < 0)
{
// Increment error count
error_count++;
// Ignore occasional errors on Pwn Plug and OpenWRT
#if !defined PWNPLUG || OPENWRT
// All other platforms, print error and bail out
syslog(LOG_ERR,"Received error from BlueZ!");
printf("Scan failed!\n");
// Check for kernel 3.0.x
if (!strncmp("3.0.",sysinfo.release,4))
{
printf("\n");
printf("-----------------------------------------------------\n");
printf("Device scanning failed, and you are running a 3.0.x\n");
printf("Linux kernel. This failure is probably due to the\n");
printf("following kernel bug:\n");
printf("\n");
printf("http://marc.info/?l=linux-kernel&m=131629118406044\n");
printf("\n");
printf("You will need to upgrade your kernel to at least the\n");
printf("the 3.1 series to continue.\n");
printf("-----------------------------------------------------\n");
}
shut_down(1);
#else
// Exit on back to back errors
if (error_count > 5)
{
printf("Scan failed!\n");
syslog(LOG_ERR,"BlueZ not responding, unrecoverable!");
shut_down(1);
}
// Otherwise, throttle back a bit, might help
sleep(1);
#endif
}
else
{
// Clear error counter
error_count = 0;
}
// Check if we need to reset device cache
if ((cache_index + num_results) >= MAX_DEV)
{
syslog(LOG_INFO,"Resetting device cache...");
memset(dev_cache, 0, sizeof(dev_cache));
cache_index = 0;
}
// Loop through results
for (i = 0; i < num_results; i++)
{
// Return current MAC from struct
ba2str(&(results+i)->bdaddr, addr);
// Compare to device cache
for (ri = 0; ri <= cache_index; ri++)
{
// Determine if device is already logged
if (strcmp (addr, dev_cache[ri].priv_addr) == 0)
{
// This device has been seen before
// Increment seen count, update printed time
dev_cache[ri].seen++;
strcpy(dev_cache[ri].time, get_localtime());
dev_cache[ri].missing_count = 0;
// If we don't have a name, query again
if ((dev_cache[ri].print == 3) && (dev_cache[ri].seen > config.retry_count))
{
syslog(LOG_INFO,"Unable to find name for %s!", addr);
dev_cache[ri].print = 1;
}
else if ((dev_cache[ri].print == 3) && (dev_cache[ri].seen < config.retry_count))
{
// Query name
strcpy(dev_cache[ri].name, namequery(&(results+i)->bdaddr));
// Did we get one?
if (strcmp (dev_cache[ri].name, "VOID") != 0)
{
syslog(LOG_INFO,"Name retry for %s successful!", addr);
// Force print
dev_cache[ri].print = 1;
}
else
syslog(LOG_INFO,"Name retry %i for %s failed!",dev_cache[ri].seen, addr);
}
// Amnesia mode
if (config.amnesia >= 0)
{
// Find current epoch time
epoch = time(NULL);
if ((epoch - dev_cache[ri].epoch) >= (config.amnesia * 60))
{
// Update epoch time
dev_cache[ri].epoch = epoch;
// Set device to print
dev_cache[ri].print = 1;
}
}
// This device is seen before, but has been away
if (strcmp (dev_cache[ri].status, "gone") == 0)
{
dev_cache[ri].print = 1;
strcpy(dev_cache[ri].status, "returned");
}
// Unless we need to get printed, move to next result
if (dev_cache[ri].print != 1)
break;
}
else if (strcmp (dev_cache[ri].addr, "") == 0)
{
// Write new device MAC (visible and internal use)
strcpy(dev_cache[ri].addr, addr);
strcpy(dev_cache[ri].priv_addr, addr);
// Query for name
if (config.getname)
strcpy(dev_cache[ri].name, namequery(&(results+i)->bdaddr));
else
strcpy(dev_cache[ri].name, "IGNORED");
// Get time found
strcpy(dev_cache[ri].time, get_localtime());
dev_cache[ri].epoch = time(NULL);
// Class info
dev_cache[ri].flags = (results+i)->dev_class[2];
dev_cache[ri].major_class = (results+i)->dev_class[1];
dev_cache[ri].minor_class = (results+i)->dev_class[0];
// Init misc variables
dev_cache[ri].seen = 1;
dev_cache[ri].missing_count = 0;
strcpy(dev_cache[ri].status, "new");
// Increment index
cache_index++;
// If we have a device name, get printed
if (strcmp (dev_cache[ri].name, "VOID") != 0)
dev_cache[ri].print = 1;
else
{
// Found with no name.
// Print message to syslog, prevent printing, and move on
syslog(LOG_INFO,"Device %s discovered with no name, will retry", dev_cache[ri].addr);
dev_cache[ri].print = 3;
break;
}
}
// Ready to print?
if (dev_cache[ri].print == 1)
{
// Encode MAC
if (config.encode || config.obfuscate)
{
// Clear buffer
memset(addr_buff, '\0', sizeof(addr_buff));
if (config.obfuscate)
strcpy(addr_buff, mac_obfuscate(dev_cache[ri].priv_addr));
if (config.encode)
strcpy(addr_buff, mac_encode(dev_cache[ri].priv_addr));
// Copy to cache
strcpy(dev_cache[ri].addr, addr_buff);
}
// Print everything to console if verbose is on, optionally friendly class info
if (config.verbose)
{
if (config.friendlyclass)
{
printf("[%s] %s,%s,%s,(%s) - %s\n",\
dev_cache[ri].time, dev_cache[ri].addr,\
dev_cache[ri].name, device_class(dev_cache[ri].major_class,\
dev_cache[ri].minor_class), device_capability(dev_cache[ri].flags), dev_cache[ri].status);
}
else
{
printf("[%s] %s,%s,0x%02x%02x%02x - %s\n",\
dev_cache[ri].time, dev_cache[ri].addr,\
dev_cache[ri].name, dev_cache[ri].flags,\
dev_cache[ri].major_class, dev_cache[ri].minor_class, dev_cache[ri].status);
}
}
if (config.bluelive)
{
// Write result with live function
live_entry(ri);
}
else if (config.bluepropro)
{
// Set output format for BlueProPro
fprintf(outfile,"%s", dev_cache[ri].addr);
fprintf(outfile,",0x%02x%02x%02x", dev_cache[ri].flags,\
dev_cache[ri].major_class, dev_cache[ri].minor_class);
fprintf(outfile,",%s\n", dev_cache[ri].name);
}
else
{
// Flush buffer
memset(outbuffer, 0, sizeof(outbuffer));
// Print time first if enabled
if (config.showtime)
sprintf(outbuffer,"[%s],", dev_cache[ri].time);
// Always output MAC
sprintf(outbuffer+strlen(outbuffer),"%s", dev_cache[ri].addr);
// Optionally output class
if (config.showclass)
sprintf(outbuffer+strlen(outbuffer),",0x%02x%02x%02x", dev_cache[ri].flags,\
dev_cache[ri].major_class, dev_cache[ri].minor_class);
// "Friendly" version of class info
if (config.friendlyclass)
sprintf(outbuffer+strlen(outbuffer),",%s,(%s)",\
device_class(dev_cache[ri].major_class, dev_cache[ri].minor_class),\
device_capability(dev_cache[ri].flags));
// Get manufacturer
if (config.getmanufacturer)
sprintf(outbuffer+strlen(outbuffer),",%s", mac_get_vendor(dev_cache[ri].priv_addr));
// Append the name
if (config.getname)
sprintf(outbuffer+strlen(outbuffer),",%s", dev_cache[ri].name);
// Append the status
if (config.status)
sprintf(outbuffer+strlen(outbuffer)," - %s", dev_cache[ri].status);
// Send buffer, else file. File needs newline
if (config.syslogonly)
syslog(LOG_INFO,"%s", outbuffer);
else if (config.udponly)
{
// Append newline to socket, kind of hacky
sprintf(outbuffer+strlen(outbuffer),"\n");
send_udp_msg(outbuffer);
}
else
fprintf(outfile,"%s\n",outbuffer);
}
dev_cache[ri].print = 0;
break;
}
// If we make it this far, it means we will check next stored device
}
// If there's a file open, write changes
if (outfile != NULL)
fflush(outfile);
}
// Now check if any devices are missing
// Loop through the cache
for (ri = 0; ri < cache_index; ri++)
{
for (i = 0; i <= num_results; i++)
{
// Return current MAC from struct
ba2str(&(results+i)->bdaddr, addr);
// Determine if device still present
if (strcmp (addr, dev_cache[ri].priv_addr) == 0)
{
break;
}
// Device not found.
if (i == num_results)
{
// The device is missing but not marked as gone -> it has just disappeared
if (strcmp(dev_cache[ri].status, "gone") != 0)
{
// Devices aren't present every time. Wait a while before marking it gone
if (dev_cache[ri].missing_count < 10)
{
dev_cache[ri].missing_count++;
}
else
// It's really gone :(
{
strcpy(dev_cache[ri].status,"gone");
// Print to console
if (config.verbose) {
printf("[%s] %s,%s - %s\n",\
dev_cache[ri].time, dev_cache[ri].addr,\
dev_cache[ri].name, dev_cache[ri].status);
}
// Flush buffer
memset(exitbuffer, 0, sizeof(exitbuffer));
// Print time first if enabled
if (config.showtime)
sprintf(exitbuffer,"[%s],", dev_cache[ri].time);
// Always output MAC
sprintf(exitbuffer+strlen(exitbuffer),"%s", dev_cache[ri].addr);
// Append the name
if (config.getname)
sprintf(exitbuffer+strlen(exitbuffer),",%s", dev_cache[ri].name);
// Append the status
if (config.status)
sprintf(exitbuffer+strlen(exitbuffer)," - %s", dev_cache[ri].status);
// Send buffer, else file. File needs newline
if (config.syslogonly)
syslog(LOG_INFO,"%s", exitbuffer);
else if (config.udponly)
{
// Append newline to socket, kind of hacky
sprintf(exitbuffer+strlen(exitbuffer),"\n");
send_udp_msg(exitbuffer);
}
else
fprintf(outfile,"%s\n",exitbuffer);
// If there's a file open, write changes
if (outfile != NULL)
fflush(outfile);
}
}
}
}
}
}
// If we get here, shut down
shut_down(0);
// STFU
return (1);
}
/*
* XXX Ugly bit of code. But, this is the only safe time that the
* match between BIOS disks and native disks can be done.
*/
static void
matchbiosdisks(void)
{
struct btinfo_biosgeom *big;
struct bi_biosgeom_entry *be;
device_t dv;
deviter_t di;
int i, ck, error, m, n;
struct vnode *tv;
char mbr[DEV_BSIZE];
int dklist_size;
int numbig;
big = lookup_bootinfo(BTINFO_BIOSGEOM);
numbig = big ? big->num : 0;
/* First, count all native disks. */
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST); dv != NULL;
dv = deviter_next(&di)) {
if (is_valid_disk(dv))
x86_ndisks++;
}
deviter_release(&di);
dklist_size = sizeof(struct disklist) + (x86_ndisks - 1) *
sizeof(struct nativedisk_info);
/* XXX M_TEMP is wrong */
x86_alldisks = malloc(dklist_size, M_TEMP, M_NOWAIT | M_ZERO);
if (x86_alldisks == NULL)
return;
x86_alldisks->dl_nnativedisks = x86_ndisks;
x86_alldisks->dl_nbiosdisks = numbig;
for (i = 0; i < numbig; i++) {
x86_alldisks->dl_biosdisks[i].bi_dev = big->disk[i].dev;
x86_alldisks->dl_biosdisks[i].bi_sec = big->disk[i].sec;
x86_alldisks->dl_biosdisks[i].bi_head = big->disk[i].head;
x86_alldisks->dl_biosdisks[i].bi_cyl = big->disk[i].cyl;
x86_alldisks->dl_biosdisks[i].bi_lbasecs = big->disk[i].totsec;
x86_alldisks->dl_biosdisks[i].bi_flags = big->disk[i].flags;
#ifdef GEOM_DEBUG
#ifdef notyet
printf("disk %x: flags %x, interface %x, device %llx\n",
big->disk[i].dev, big->disk[i].flags,
big->disk[i].interface_path, big->disk[i].device_path);
#endif
#endif
}
/* XXX Code duplication from findroot(). */
n = -1;
for (dv = deviter_first(&di, DEVITER_F_ROOT_FIRST); dv != NULL;
dv = deviter_next(&di)) {
if (device_class(dv) != DV_DISK)
continue;
#ifdef GEOM_DEBUG
printf("matchbiosdisks: trying to match (%s) %s\n",
device_xname(dv), device_cfdata(dv)->cf_name);
#endif
if (is_valid_disk(dv)) {
n++;
snprintf(x86_alldisks->dl_nativedisks[n].ni_devname,
sizeof(x86_alldisks->dl_nativedisks[n].ni_devname),
"%s", device_xname(dv));
if ((tv = opendisk(dv)) == NULL)
continue;
error = vn_rdwr(UIO_READ, tv, mbr, DEV_BSIZE, 0,
UIO_SYSSPACE, 0, NOCRED, NULL, NULL);
VOP_CLOSE(tv, FREAD, NOCRED);
vput(tv);
if (error) {
#ifdef GEOM_DEBUG
printf("matchbiosdisks: %s: MBR read failure\n",
device_xname(dv));
#endif
continue;
}
for (ck = i = 0; i < DEV_BSIZE; i++)
ck += mbr[i];
for (m = i = 0; i < numbig; i++) {
be = &big->disk[i];
#ifdef GEOM_DEBUG
printf("match %s with %d "
"dev ck %x bios ck %x\n", device_xname(dv), i,
ck, be->cksum);
#endif
if (be->flags & BI_GEOM_INVALID)
continue;
if (be->cksum == ck &&
memcmp(&mbr[MBR_PART_OFFSET], be->mbrparts,
MBR_PART_COUNT *
sizeof(struct mbr_partition)) == 0) {
#ifdef GEOM_DEBUG
printf("matched BIOS disk %x with %s\n",
be->dev, device_xname(dv));
#endif
x86_alldisks->dl_nativedisks[n].
ni_biosmatches[m++] = i;
}
}
x86_alldisks->dl_nativedisks[n].ni_nmatches = m;
}
}
deviter_release(&di);
}
/*
* Mount a remote root fs via. NFS. It goes like this:
* - Call nfs_boot_init() to fill in the nfs_diskless struct
* - build the rootfs mount point and call mountnfs() to do the rest.
*/
int
nfs_mountroot(void)
{
struct timespec ts;
struct nfs_diskless *nd;
struct vattr attr;
struct mount *mp;
struct vnode *vp;
struct lwp *l;
long n;
int error;
l = curlwp; /* XXX */
if (device_class(root_device) != DV_IFNET)
return (ENODEV);
/*
* XXX time must be non-zero when we init the interface or else
* the arp code will wedge. [Fixed now in if_ether.c]
* However, the NFS attribute cache gives false "hits" when the
* current time < nfs_attrtimeo(nmp, np) so keep this in for now.
*/
if (time_second < NFS_MAXATTRTIMO) {
ts.tv_sec = NFS_MAXATTRTIMO;
ts.tv_nsec = 0;
tc_setclock(&ts);
}
/*
* Call nfs_boot_init() to fill in the nfs_diskless struct.
* Side effect: Finds and configures a network interface.
*/
nd = kmem_zalloc(sizeof(*nd), KM_SLEEP);
error = nfs_boot_init(nd, l);
if (error) {
kmem_free(nd, sizeof(*nd));
return (error);
}
/*
* Create the root mount point.
*/
error = nfs_mount_diskless(&nd->nd_root, "/", &mp, &vp, l);
if (error)
goto out;
printf("root on %s\n", nd->nd_root.ndm_host);
/*
* Link it into the mount list.
*/
mountlist_append(mp);
rootvp = vp;
mp->mnt_vnodecovered = NULLVP;
vfs_unbusy(mp, false, NULL);
/* Get root attributes (for the time). */
vn_lock(vp, LK_SHARED | LK_RETRY);
error = VOP_GETATTR(vp, &attr, l->l_cred);
VOP_UNLOCK(vp);
if (error)
panic("nfs_mountroot: getattr for root");
n = attr.va_atime.tv_sec;
#ifdef DEBUG
printf("root time: 0x%lx\n", n);
#endif
setrootfstime(n);
out:
if (error)
nfs_boot_cleanup(nd, l);
kmem_free(nd, sizeof(*nd));
return (error);
}