static void
hw_eeprom_init_data(device *me)
{
hw_eeprom_device *eeprom = (hw_eeprom_device*)device_data(me);
/* have we any input or output files */
if (device_find_property(me, "input-file") != NULL)
eeprom->input_file_name = device_find_string_property(me, "input-file");
if (device_find_property(me, "output-file") != NULL)
eeprom->input_file_name = device_find_string_property(me, "output-file");
/* figure out the sectors in the eeprom */
if (eeprom->sectors == NULL) {
eeprom->nr_sectors = device_find_integer_property(me, "nr-sectors");
eeprom->sizeof_sector = device_find_integer_property(me, "sector-size");
eeprom->sectors = zalloc(eeprom->nr_sectors);
}
else
memset(eeprom->sectors, 0, eeprom->nr_sectors);
/* initialize the eeprom */
if (eeprom->memory == NULL) {
eeprom->sizeof_memory = eeprom->sizeof_sector * eeprom->nr_sectors;
eeprom->memory = zalloc(eeprom->sizeof_memory);
}
else
memset(eeprom->memory, 0, eeprom->sizeof_memory);
if (eeprom->input_file_name != NULL) {
int i;
FILE *input_file = fopen(eeprom->input_file_name, "r");
if (input_file == NULL) {
perror("eeprom");
device_error(me, "Failed to open input file %s\n", eeprom->input_file_name);
}
for (i = 0; i < eeprom->sizeof_memory; i++) {
if (fread(&eeprom->memory[i], 1, 1, input_file) != 1)
break;
}
fclose(input_file);
}
/* timing */
eeprom->byte_write_delay = device_find_integer_property(me, "byte-write-delay");
eeprom->sector_start_delay = device_find_integer_property(me, "sector-start-delay");
eeprom->erase_delay = device_find_integer_property(me, "erase-delay");
/* misc */
eeprom->manufacture_code = device_find_integer_property(me, "manufacture-code");
eeprom->device_code = device_find_integer_property(me, "device-code");
}
static void
hw_sem_init_data(device *me)
{
hw_sem_device *sem = (hw_sem_device*)device_data(me);
const device_unit *d;
int status;
union semun help;
/* initialize the properties of the sem */
if (device_find_property(me, "key") == NULL)
error("sem_init_data() required key property is missing\n");
if (device_find_property(me, "value") == NULL)
error("sem_init_data() required value property is missing\n");
sem->key = (key_t) device_find_integer_property(me, "key");
DTRACE(sem, ("semaphore key (%d)\n", sem->key) );
sem->initial = (int) device_find_integer_property(me, "value");
DTRACE(sem, ("semaphore initial value (%d)\n", sem->initial) );
d = device_unit_address(me);
sem->physical_address = d->cells[ d->nr_cells-1 ];
DTRACE(sem, ("semaphore physical_address=0x%x\n", sem->physical_address));
/* Now to initialize the semaphore */
if ( sem->initial != -1 ) {
sem->id = semget(sem->key, 1, IPC_CREAT | 0660);
if (sem->id == -1)
error("hw_sem_init_data() semget failed\n");
help.val = sem->initial;
status = semctl( sem->id, 0, SETVAL, help );
if (status == -1)
error("hw_sem_init_data() semctl -- set value failed\n");
} else {
sem->id = semget(sem->key, 1, 0660);
if (sem->id == -1)
error("hw_sem_init_data() semget failed\n");
}
sem->count = semctl( sem->id, 0, GETVAL, help );
if (sem->count == -1)
error("hw_sem_init_data() semctl -- get value failed\n");
DTRACE(sem, ("semaphore OS value (%d)\n", sem->count) );
}
static int
hw_disk_nr_blocks(device_instance *instance,
int n_stack_args,
unsigned32 stack_args[/*n_stack_args*/],
int n_stack_returns,
unsigned32 stack_returns[/*n_stack_returns*/])
{
device *me = device_instance_device(instance);
if ((n_stack_args != 0)
|| (n_stack_returns != 1)) {
device_error(me, "Incorrect number of arguments for block-size method\n");
return -1;
}
else {
unsigned_word nr_blocks;
if (device_find_property(me, "#blocks"))
nr_blocks = device_find_integer_property(me, "#blocks");
else
nr_blocks = -1;
DITRACE(disk, ("#blocks - instance=%ld #blocks=%ld\n",
(unsigned long)device_instance_to_external(instance),
(long int)nr_blocks));
stack_returns[0] = nr_blocks;
return 0;
}
}
static int
hw_disk_block_size(device_instance *instance,
int n_stack_args,
unsigned32 stack_args[/*n_stack_args*/],
int n_stack_returns,
unsigned32 stack_returns[/*n_stack_returns*/])
{
device *me = device_instance_device(instance);
if ((n_stack_args != 0)
|| (n_stack_returns != 1)) {
device_error(me, "Incorrect number of arguments for block-size method\n");
return -1;
}
else {
unsigned_cell block_size;
if (device_find_property(me, "block-size"))
block_size = device_find_integer_property(me, "block-size");
else
block_size = 512;
DITRACE(disk, ("block-size - instance=%ld block-size=%ld\n",
(unsigned long)device_instance_to_external(instance),
(long int)block_size));
stack_returns[0] = block_size;
return 0;
}
}
static void
hw_disk_init_address(device *me)
{
hw_disk_device *disk = device_data(me);
unsigned_word address;
int space;
const char *name;
/* attach to the parent. Since the bus is logical, attach using just
the unit-address (size must be zero) */
device_address_to_attach_address(device_parent(me), device_unit_address(me),
&space, &address, me);
device_attach_address(device_parent(me), attach_callback,
space, address, 0/*size*/, access_read_write_exec,
me);
/* Tell the world we are a disk. */
device_add_string_property(me, "device_type", "block");
/* get the name of the file specifying the disk image */
disk->name_index = 0;
disk->nr_names = device_find_string_array_property(me, "file",
disk->name_index, &name);
if (!disk->nr_names)
device_error(me, "invalid file property");
/* is it a RO device? */
disk->read_only =
(strcmp(device_name(me), "disk") != 0
&& strcmp(device_name(me), "floppy") != 0
&& device_find_property(me, "read-only") == NULL);
/* now open it */
open_disk_image(me, disk, name);
}
static void
hw_ide_init_address(device *me)
{
hw_ide_device *ide = device_data(me);
int controller;
int drive;
/* zero some things */
for (controller = 0; controller < nr_ide_controllers; controller++) {
memset(&ide->controller[controller], 0, sizeof(ide_controller));
for (drive = 0; drive < nr_ide_drives_per_controller; drive++) {
ide->controller[controller].drive[drive].nr = drive;
}
ide->controller[controller].me = me;
if (device_find_property(me, "ready-delay") != NULL)
ide->controller[controller].ready_delay =
device_find_integer_property(me, "ready-delay");
}
/* attach this device to its parent */
generic_device_init_address(me);
/* determine our own address map */
build_address_decoder(me, &ide->decoder);
}
static int
hw_disk_max_transfer(device_instance *instance,
int n_stack_args,
unsigned32 stack_args[/*n_stack_args*/],
int n_stack_returns,
unsigned32 stack_returns[/*n_stack_returns*/])
{
device *me = device_instance_device(instance);
if ((n_stack_args != 0)
|| (n_stack_returns != 1)) {
device_error(me, "Incorrect number of arguments for max-transfer method\n");
return -1;
}
else {
unsigned_cell max_transfer;
if (device_find_property(me, "max-transfer"))
max_transfer = device_find_integer_property(me, "max-transfer");
else
max_transfer = 512;
DITRACE(disk, ("max-transfer - instance=%ld max-transfer=%ld\n",
(unsigned long)device_instance_to_external(instance),
(long int)max_transfer));
stack_returns[0] = max_transfer;
return 0;
}
}
tree_find_property(device *root,
const char *path_to_property)
{
name_specifier spec;
if (!split_property_specifier(root, path_to_property, &spec))
device_error(root, "Invalid property path %s", path_to_property);
root = split_find_device(root, &spec);
return device_find_property(root, spec.property);
}
static void
hw_data_init_data_callback(device *me)
{
unsigned_word addr = device_find_integer_property(me, "real-address");
const device_property *data = device_find_property(me, "data");
const char *instance_spec = (device_find_property(me, "instance") != NULL
? device_find_string_property(me, "instance")
: NULL);
device_instance *instance = NULL;
if (data == NULL)
device_error(me, "missing property <data>\n");
if (instance_spec != NULL)
instance = tree_instance(me, instance_spec);
switch (data->type) {
case integer_property:
{
unsigned_cell buf = device_find_integer_property(me, "data");
H2T(buf);
if (instance == NULL) {
if (device_dma_write_buffer(device_parent(me),
&buf,
0 /*address-space*/,
addr,
sizeof(buf), /*nr-bytes*/
1 /*violate ro*/) != sizeof(buf))
device_error(me, "Problem storing integer 0x%x at 0x%lx\n",
(unsigned)buf, (unsigned long)addr);
}
else {
if (device_instance_seek(instance, 0, addr) < 0
|| device_instance_write(instance, &buf, sizeof(buf)) != sizeof(buf))
device_error(me, "Problem storing integer 0x%x at 0x%lx of instance %s\n",
(unsigned)buf, (unsigned long)addr, instance_spec);
}
}
break;
default:
device_error(me, "Write of this data is not yet implemented\n");
break;
}
if (instance != NULL)
device_instance_delete(instance);
}
static void
hw_shm_init_data(device *me)
{
hw_shm_device *shm = (hw_shm_device*)device_data(me);
const device_unit *d;
reg_property_spec reg;
int i;
/* Obtain the Key Value */
if (device_find_property(me, "key") == NULL)
error("shm_init_data() required key property is missing\n");
shm->key = (key_t) device_find_integer_property(me, "key");
DTRACE(shm, ("shm key (0x%08x)\n", shm->key) );
/* Figure out where this memory is in address space and how long it is */
if ( !device_find_reg_array_property(me, "reg", 0, ®) )
error("hw_shm_init_data() no address registered\n");
/* Determine the address and length being as paranoid as possible */
shm->physical_address = 0xffffffff;
shm->sizeof_memory = 0xffffffff;
for ( i=0 ; i<reg.address.nr_cells; i++ ) {
if (reg.address.cells[0] == 0 && reg.size.cells[0] == 0)
continue;
if ( shm->physical_address != 0xffffffff )
device_error(me, "Only single celled address ranges supported\n");
shm->physical_address = reg.address.cells[i];
DTRACE(shm, ("shm physical_address=0x%x\n", shm->physical_address));
shm->sizeof_memory = reg.size.cells[i];
DTRACE(shm, ("shm length=0x%x\n", shm->sizeof_memory));
}
if ( shm->physical_address == 0xffffffff )
device_error(me, "Address not specified\n" );
if ( shm->sizeof_memory == 0xffffffff )
device_error(me, "Length not specified\n" );
/* Now actually attach to or create the shared memory area */
shm->id = shmget(shm->key, shm->sizeof_memory, IPC_CREAT | 0660);
if (shm->id == -1)
error("hw_shm_init_data() shmget failed\n");
shm->shm_address = shmat(shm->id, (char *)0, SHM_RND);
if (shm->shm_address == (void *)-1)
error("hw_shm_init_data() shmat failed\n");
}
static void
hw_nvram_init_address(device *me)
{
hw_nvram_device *nvram = (hw_nvram_device*)device_data(me);
/* use the generic init code to attach this device to its parent bus */
generic_device_init_address(me);
/* find the first non zero reg property and use that as the device
size */
if (nvram->sizeof_memory == 0) {
reg_property_spec reg;
int reg_nr;
for (reg_nr = 0;
device_find_reg_array_property(me, "reg", reg_nr, ®);
reg_nr++) {
unsigned attach_size;
if (device_size_to_attach_size(device_parent(me),
®.size, &attach_size,
me)) {
nvram->sizeof_memory = attach_size;
break;
}
}
if (nvram->sizeof_memory == 0)
device_error(me, "reg property must contain a non-zero phys-addr:size tupple");
if (nvram->sizeof_memory < 8)
device_error(me, "NVRAM must be at least 8 bytes in size");
}
/* initialize the hw_nvram */
if (nvram->memory == NULL) {
nvram->memory = zalloc(nvram->sizeof_memory);
}
else
memset(nvram->memory, 0, nvram->sizeof_memory);
if (device_find_property(me, "timezone") == NULL)
nvram->timezone = 0;
else
nvram->timezone = device_find_integer_property(me, "timezone");
nvram->addr_year = nvram->sizeof_memory - 1;
nvram->addr_month = nvram->sizeof_memory - 2;
nvram->addr_date = nvram->sizeof_memory - 3;
nvram->addr_day = nvram->sizeof_memory - 4;
nvram->addr_hour = nvram->sizeof_memory - 5;
nvram->addr_minutes = nvram->sizeof_memory - 6;
nvram->addr_seconds = nvram->sizeof_memory - 7;
nvram->addr_control = nvram->sizeof_memory - 8;
}
static void
hw_ide_attach_address(device *me,
attach_type type,
int space,
unsigned_word addr,
unsigned nr_bytes,
access_type access,
device *client) /*callback/default*/
{
hw_ide_device *ide = (hw_ide_device*)device_data(me);
int controller_nr = addr / nr_ide_drives_per_controller;
int drive_nr = addr % nr_ide_drives_per_controller;
ide_controller *controller;
ide_drive *drive;
if (controller_nr >= nr_ide_controllers)
device_error(me, "no controller for disk %s",
device_path(client));
controller = &ide->controller[controller_nr];
drive = &controller->drive[drive_nr];
drive->device = client;
if (device_find_property(client, "ide-byte-count") != NULL)
drive->geometry.byte = device_find_integer_property(client, "ide-byte-count");
else
drive->geometry.byte = 512;
if (device_find_property(client, "ide-sector-count") != NULL)
drive->geometry.sector = device_find_integer_property(client, "ide-sector-count");
if (device_find_property(client, "ide-head-count") != NULL)
drive->geometry.head = device_find_integer_property(client, "ide-head-count");
drive->default_geometry = drive->geometry;
DTRACE(ide, ("controller %d:%d %s byte-count %d, sector-count %d, head-count %d\n",
controller_nr,
drive->nr,
device_path(client),
drive->geometry.byte,
drive->geometry.sector,
drive->geometry.head));
}
INLINE_EMUL_GENERIC void
emul_add_tree_options(device *tree,
bfd *image,
const char *emul,
const char *env,
int oea_interrupt_prefix)
{
int little_endian = 0;
/* sort out little endian */
if (device_find_property(tree, "/options/little-endian?"))
little_endian = device_find_boolean_property(tree, "/options/little-endian?");
else {
#ifdef bfd_little_endian /* new bfd */
little_endian = (image != NULL && bfd_little_endian(image));
#else
little_endian = (image != NULL &&
!image->xvec->byteorder_big_p);
#endif
device_tree_add_parsed(tree, "/options/little-endian? %s",
little_endian ? "true" : "false");
}
/* misc other stuff */
device_tree_add_parsed(tree, "/openprom/options/oea-memory-size 0x%x",
OEA_MEMORY_SIZE);
device_tree_add_parsed(tree, "/openprom/options/oea-interrupt-prefix %d",
oea_interrupt_prefix);
device_tree_add_parsed(tree, "/openprom/options/smp 1");
device_tree_add_parsed(tree, "/openprom/options/env %s", env);
device_tree_add_parsed(tree, "/openprom/options/os-emul %s", emul);
device_tree_add_parsed(tree, "/openprom/options/strict-alignment? %s",
((WITH_ALIGNMENT == 0 && little_endian)
|| (WITH_ALIGNMENT == STRICT_ALIGNMENT))
? "true" : "false");
device_tree_add_parsed(tree, "/openprom/options/floating-point? %s",
WITH_FLOATING_POINT ? "true" : "false");
device_tree_add_parsed(tree, "/openprom/options/use-stdio? %s",
WITH_STDIO == DO_USE_STDIO ? "true" : "false");
device_tree_add_parsed(tree, "/openprom/options/model \"%s",
model_name[WITH_DEFAULT_MODEL]);
device_tree_add_parsed(tree, "/openprom/options/model-issue %d",
MODEL_ISSUE_IGNORE);
/* useful options */
/* FIXME - need to check the OpenBoot powerpc bindings to see if
this is still used and if so what it should be */
device_tree_add_parsed(tree, "/options/load-base 0x80000");
}
static void
hw_com_device_init_data(device *me)
{
hw_com_device *com = (hw_com_device*)device_data(me);
/* clean up */
if (com->output.file != NULL)
fclose(com->output.file);
if (com->input.file != NULL)
fclose(com->input.file);
memset(com, 0, sizeof(hw_com_device));
/* the fifo speed */
com->output.delay = (device_find_property(me, "output-delay") != NULL
? device_find_integer_property(me, "output-delay")
: 0);
com->input.delay = (device_find_property(me, "input-delay") != NULL
? device_find_integer_property(me, "input-delay")
: 0);
/* the data source/sink */
if (device_find_property(me, "input-file") != NULL) {
const char *input_file = device_find_string_property(me, "input-file");
com->input.file = fopen(input_file, "r");
if (com->input.file == NULL)
device_error(me, "Problem opening input file %s\n", input_file);
if (device_find_property(me, "input-buffering") != NULL) {
const char *buffering = device_find_string_property(me, "input-buffering");
if (strcmp(buffering, "unbuffered") == 0)
setbuf(com->input.file, NULL);
}
}
if (device_find_property(me, "output-file") != NULL) {
const char *output_file = device_find_string_property(me, "output-file");
com->output.file = fopen(output_file, "w");
if (com->output.file == NULL)
device_error(me, "Problem opening output file %s\n", output_file);
if (device_find_property(me, "output-buffering") != NULL) {
const char *buffering = device_find_string_property(me, "output-buffering");
if (strcmp(buffering, "unbuffered") == 0)
setbuf(com->output.file, NULL);
}
}
/* ready from the start */
com->input.ready = 1;
com->modem.carrier = 1;
com->output.ready = 1;
}
static void
update_for_binary_section(bfd *abfd,
asection *the_section,
PTR obj)
{
unsigned_word section_vma;
unsigned_word section_size;
access_type access;
device *me = (device*)obj;
/* skip the section if no memory to allocate */
if (! (bfd_get_section_flags(abfd, the_section) & SEC_ALLOC))
return;
/* check/ignore any sections of size zero */
section_size = bfd_get_section_size_before_reloc(the_section);
if (section_size == 0)
return;
/* find where it is to go */
section_vma = bfd_get_section_vma(abfd, the_section);
DTRACE(binary,
("name=%-7s, vma=0x%.8lx, size=%6ld, flags=%3lx(%s%s%s%s%s )\n",
bfd_get_section_name(abfd, the_section),
(long)section_vma,
(long)section_size,
(long)bfd_get_section_flags(abfd, the_section),
bfd_get_section_flags(abfd, the_section) & SEC_LOAD ? " LOAD" : "",
bfd_get_section_flags(abfd, the_section) & SEC_CODE ? " CODE" : "",
bfd_get_section_flags(abfd, the_section) & SEC_DATA ? " DATA" : "",
bfd_get_section_flags(abfd, the_section) & SEC_ALLOC ? " ALLOC" : "",
bfd_get_section_flags(abfd, the_section) & SEC_READONLY ? " READONLY" : ""
));
/* If there is an .interp section, it means it needs a shared library interpreter. */
if (strcmp(".interp", bfd_get_section_name(abfd, the_section)) == 0)
error("Shared libraries are not yet supported.\n");
/* determine the devices access */
access = access_read;
if (bfd_get_section_flags(abfd, the_section) & SEC_CODE)
access |= access_exec;
if (!(bfd_get_section_flags(abfd, the_section) & SEC_READONLY))
access |= access_write;
/* if claim specified, allocate region from the memory device */
if (device_find_property(me, "claim") != NULL) {
device_instance *memory = tree_find_ihandle_property(me, "/chosen/memory");
unsigned_cell mem_in[3];
unsigned_cell mem_out[1];
mem_in[0] = 0; /*alignment - top-of-stack*/
mem_in[1] = section_size;
mem_in[2] = section_vma;
if (device_instance_call_method(memory, "claim", 3, mem_in, 1, mem_out) < 0)
device_error(me, "failed to claim memory for section at 0x%lx (0x%lx",
section_vma,
section_size);
if (mem_out[0] != section_vma)
device_error(me, "section address not as requested");
}
/* if a map, pass up a request to create the memory in core */
if (strncmp(device_name(me), "map-binary", strlen("map-binary")) == 0)
device_attach_address(device_parent(me),
attach_raw_memory,
0 /*address space*/,
section_vma,
section_size,
access,
me);
/* if a load dma in the required data */
if (bfd_get_section_flags(abfd, the_section) & SEC_LOAD) {
void *section_init = zalloc(section_size);
if (!bfd_get_section_contents(abfd,
the_section,
section_init, 0,
section_size)) {
bfd_perror("binary");
device_error(me, "load of data failed");
return;
}
if (device_dma_write_buffer(device_parent(me),
section_init,
0 /*space*/,
section_vma,
section_size,
1 /*violate_read_only*/)
!= section_size)
device_error(me, "broken transfer\n");
zfree(section_init); /* only free if load */
}
}
split_device_specifier(device *current,
const char *device_specifier,
name_specifier *spec)
{
char *chp = NULL;
/* expand any leading alias if present */
if (current != NULL
&& *device_specifier != '\0'
&& *device_specifier != '.'
&& *device_specifier != '/') {
device *aliases = tree_find_device(current, "/aliases");
char alias[32];
int len = 0;
while (device_specifier[len] != '\0'
&& device_specifier[len] != '/'
&& device_specifier[len] != ':'
&& !isspace(device_specifier[len])) {
alias[len] = device_specifier[len];
len++;
if (len >= sizeof(alias))
error("split_device_specifier: buffer overflow");
}
alias[len] = '\0';
if (aliases != NULL
&& device_find_property(aliases, alias)) {
strcpy(spec->buf, device_find_string_property(aliases, alias));
strcat(spec->buf, device_specifier + len);
}
else {
strcpy(spec->buf, device_specifier);
}
}
else {
strcpy(spec->buf, device_specifier);
}
/* check no overflow */
if (strlen(spec->buf) >= sizeof(spec->buf))
error("split_device_specifier: buffer overflow\n");
/* strip leading spaces */
chp = spec->buf;
while (*chp != '\0' && isspace(*chp))
chp++;
if (*chp == '\0')
return 0;
/* find the path and terminate it with null */
spec->path = chp;
while (*chp != '\0' && !isspace(*chp))
chp++;
if (*chp != '\0') {
*chp = '\0';
chp++;
}
/* and any value */
while (*chp != '\0' && isspace(*chp))
chp++;
spec->value = chp;
/* now go back and chop the property off of the path */
if (spec->value[0] == '\0') {
spec->property = NULL; /*not a property*/
spec->value = NULL;
}
else if (spec->value[0] == '>'
|| spec->value[0] == '<') {
/* an interrupt spec */
spec->property = NULL;
}
else {
chp = strrchr(spec->path, '/');
if (chp == NULL) {
spec->property = spec->path;
spec->path = strchr(spec->property, '\0');
}
else {
*chp = '\0';
spec->property = chp+1;
}
}
/* and mark the rest as invalid */
spec->name = NULL;
spec->base = NULL;
spec->unit = NULL;
spec->args = NULL;
spec->last_name = NULL;
spec->last_base = NULL;
spec->last_unit = NULL;
spec->last_args = NULL;
return 1;
}
print_properties(device *me)
{
const device_property *property;
for (property = device_find_property(me, NULL);
property != NULL;
property = device_next_property(property)) {
printf_filtered("%s/%s", device_path(me), property->name);
if (property->original != NULL) {
printf_filtered(" !");
printf_filtered("%s/%s",
device_path(property->original->owner),
property->original->name);
}
else {
switch (property->type) {
case array_property:
if ((property->sizeof_array % sizeof(signed_cell)) == 0) {
unsigned_cell *w = (unsigned_cell*)property->array;
int cell_nr;
for (cell_nr = 0;
cell_nr < (property->sizeof_array / sizeof(unsigned_cell));
cell_nr++) {
printf_filtered(" 0x%lx", (unsigned long)BE2H_cell(w[cell_nr]));
}
}
else {
unsigned8 *w = (unsigned8*)property->array;
printf_filtered(" [");
while ((char*)w - (char*)property->array < property->sizeof_array) {
printf_filtered(" 0x%2x", BE2H_1(*w));
w++;
}
}
break;
case boolean_property:
{
int b = device_find_boolean_property(me, property->name);
printf_filtered(" %s", b ? "true" : "false");
}
break;
case ihandle_property:
{
if (property->array != NULL) {
device_instance *instance = device_find_ihandle_property(me, property->name);
printf_filtered(" *%s", device_instance_path(instance));
}
else {
/* not yet initialized, ask the device for the path */
ihandle_runtime_property_spec spec;
device_find_ihandle_runtime_property(me, property->name, &spec);
printf_filtered(" *%s", spec.full_path);
}
}
break;
case integer_property:
{
unsigned_word w = device_find_integer_property(me, property->name);
printf_filtered(" 0x%lx", (unsigned long)w);
}
break;
case range_array_property:
print_ranges_property(me, property);
break;
case reg_array_property:
print_reg_property(me, property);
break;
case string_property:
{
const char *s = device_find_string_property(me, property->name);
print_string(s);
}
break;
case string_array_property:
print_string_array_property(me, property);
break;
}
}
printf_filtered("\n");
}
}
