/* Test that we can bind/unbind and the lists update correctly */
static int dm_test_ordering(struct unit_test_state *uts)
{
struct dm_test_state *dms = uts->priv;
struct udevice *dev, *dev_penultimate, *dev_last, *test_dev;
int pingret;
ut_assertok(device_bind_by_name(dms->root, false, &driver_info_manual,
&dev));
ut_assert(dev);
/* Bind two new devices (numbers 4 and 5) */
ut_assertok(device_bind_by_name(dms->root, false, &driver_info_manual,
&dev_penultimate));
ut_assert(dev_penultimate);
ut_assertok(device_bind_by_name(dms->root, false, &driver_info_manual,
&dev_last));
ut_assert(dev_last);
/* Now remove device 3 */
ut_assertok(device_remove(dev));
ut_assertok(device_unbind(dev));
/* The device numbering should have shifted down one */
ut_assertok(uclass_find_device(UCLASS_TEST, 3, &test_dev));
ut_assert(dev_penultimate == test_dev);
ut_assertok(uclass_find_device(UCLASS_TEST, 4, &test_dev));
ut_assert(dev_last == test_dev);
/* Add back the original device 3, now in position 5 */
ut_assertok(device_bind_by_name(dms->root, false, &driver_info_manual,
&dev));
ut_assert(dev);
/* Try ping */
ut_assertok(test_ping(dev, 100, &pingret));
ut_assert(pingret == 102);
/* Remove 3 and 4 */
ut_assertok(device_remove(dev_penultimate));
ut_assertok(device_unbind(dev_penultimate));
ut_assertok(device_remove(dev_last));
ut_assertok(device_unbind(dev_last));
/* Our device should now be in position 3 */
ut_assertok(uclass_find_device(UCLASS_TEST, 3, &test_dev));
ut_assert(dev == test_dev);
/* Now remove device 3 */
ut_assertok(device_remove(dev));
ut_assertok(device_unbind(dev));
return 0;
}
int dm_uninit(void)
{
device_remove(dm_root());
device_unbind(dm_root());
return 0;
}
/* Test that the bus ops are called when a child is probed/removed */
static int dm_test_bus_parent_ops(struct dm_test_state *dms)
{
struct dm_test_parent_data *parent_data;
struct udevice *bus, *dev;
struct uclass *uc;
test_state = dms;
ut_assertok(uclass_get_device(UCLASS_TEST_BUS, 0, &bus));
ut_assertok(uclass_get(UCLASS_TEST_FDT, &uc));
uclass_foreach_dev(dev, uc) {
/* Ignore these if they are not on this bus */
if (dev->parent != bus)
continue;
ut_asserteq_ptr(NULL, dev_get_parentdata(dev));
ut_assertok(device_probe(dev));
parent_data = dev_get_parentdata(dev);
ut_asserteq(FLAG_CHILD_PROBED, parent_data->flag);
}
uclass_foreach_dev(dev, uc) {
/* Ignore these if they are not on this bus */
if (dev->parent != bus)
continue;
parent_data = dev_get_parentdata(dev);
ut_asserteq(FLAG_CHILD_PROBED, parent_data->flag);
ut_assertok(device_remove(dev));
ut_asserteq_ptr(NULL, dev_get_parentdata(dev));
ut_asserteq_ptr(dms->removed, dev);
}
test_state = NULL;
return 0;
}
static int sata_imx_probe(struct udevice *dev)
{
int i, err;
/* Make sure this gpio has logical 0 value */
gpio_direction_output(CM_FX6_SATA_PWLOSS_INT, 0);
udelay(100);
cm_fx6_sata_power(1);
for (i = 0; i < CM_FX6_SATA_INIT_RETRIES; i++) {
err = setup_sata();
if (err) {
printf("SATA setup failed: %d\n", err);
return err;
}
udelay(100);
err = dwc_ahsata_probe(dev);
if (!err)
break;
/* There is no device on the SATA port */
if (sata_dm_port_status(0, 0) == 0)
break;
/* There's a device, but link not established. Retry */
device_remove(dev, DM_REMOVE_NORMAL);
}
return 0;
}
static void usb_midi_sink_unbind(void* ctx) {
usb_midi_sink_t* sink = ctx;
sink->dead = true;
update_signals(sink);
sync_completion_signal(&sink->free_write_completion);
device_remove(sink->mxdev);
}
int sata_remove(int devnum)
{
#ifdef CONFIG_AHCI
struct udevice *dev;
int rc;
rc = uclass_find_device(UCLASS_AHCI, devnum, &dev);
if (!rc && !dev)
rc = uclass_find_first_device(UCLASS_AHCI, &dev);
if (rc || !dev) {
printf("Cannot find SATA device %d (err=%d)\n", devnum, rc);
return CMD_RET_FAILURE;
}
rc = device_remove(dev, DM_REMOVE_NORMAL);
if (rc) {
printf("Cannot remove SATA device '%s' (err=%d)\n", dev->name,
rc);
return CMD_RET_FAILURE;
}
return 0;
#else
return sata_stop();
#endif
}
/*
* 关闭 socket
*/
static int socket_close(void *ctx, file_t *file)
{
privinfo_t *priv = ctx;
reg_t reg;
if (priv == NULL) {
seterrno(EINVAL);
return -1;
}
reg = interrupt_disable();
atomic_dec(dev_ref(file));
device_remove(file->ctx);
file->ctx = NULL;
lwip_close(priv->sock_fd);
kfree(priv);
interrupt_resume(reg);
return 0;
}
/* Test that the bus can store data about each child */
static int test_bus_parent_data(struct unit_test_state *uts)
{
struct dm_test_parent_data *parent_data;
struct udevice *bus, *dev;
struct uclass *uc;
int value;
ut_assertok(uclass_get_device(UCLASS_TEST_BUS, 0, &bus));
/* Check that parent data is allocated */
ut_assertok(device_find_child_by_seq(bus, 0, true, &dev));
ut_asserteq_ptr(NULL, dev_get_parent_priv(dev));
ut_assertok(device_get_child_by_seq(bus, 0, &dev));
parent_data = dev_get_parent_priv(dev);
ut_assert(NULL != parent_data);
/* Check that it starts at 0 and goes away when device is removed */
parent_data->sum += 5;
ut_asserteq(5, parent_data->sum);
device_remove(dev);
ut_asserteq_ptr(NULL, dev_get_parent_priv(dev));
/* Check that we can do this twice */
ut_assertok(device_get_child_by_seq(bus, 0, &dev));
parent_data = dev_get_parent_priv(dev);
ut_assert(NULL != parent_data);
parent_data->sum += 5;
ut_asserteq(5, parent_data->sum);
/* Add parent data to all children */
ut_assertok(uclass_get(UCLASS_TEST_FDT, &uc));
value = 5;
uclass_foreach_dev(dev, uc) {
/* Ignore these if they are not on this bus */
if (dev->parent != bus) {
ut_asserteq_ptr(NULL, dev_get_parent_priv(dev));
continue;
}
ut_assertok(device_probe(dev));
parent_data = dev_get_parent_priv(dev);
parent_data->sum = value;
value += 5;
}
/* Check it is still there */
value = 5;
uclass_foreach_dev(dev, uc) {
/* Ignore these if they are not on this bus */
if (dev->parent != bus)
continue;
parent_data = dev_get_parent_priv(dev);
ut_asserteq(value, parent_data->sum);
value += 5;
}
return 0;
}
void IntelHDAStreamBase::Deactivate() {
{
fbl::AutoLock obj_lock(&obj_lock_);
DEBUG_LOG("Deactivating stream\n");
// Let go of any unsolicited stream tags we may be holding.
if (unsol_tag_count_) {
ZX_DEBUG_ASSERT(parent_codec_ != nullptr);
parent_codec_->ReleaseAllUnsolTags(*this);
unsol_tag_count_ = 0;
}
// Clear out our parent_codec_ pointer. This will mark us as being
// inactive and prevent any new connections from being made.
parent_codec_.reset();
// We should already have been removed from our codec's active stream list
// at this point.
ZX_DEBUG_ASSERT(!this->InContainer());
}
default_domain_->Deactivate();
{
fbl::AutoLock obj_lock(&obj_lock_);
ZX_DEBUG_ASSERT(stream_channel_ == nullptr);
// Allow our implementation to send the commands needed to tear down the
// widgets which make up this stream.
OnDeactivateLocked();
// If we have been given a DMA stream by the IHDA controller, attempt to
// return it now.
if ((dma_stream_id_ != IHDA_INVALID_STREAM_ID) && (codec_channel_ != nullptr)) {
ihda_proto::ReleaseStreamReq req;
req.hdr.transaction_id = id();
req.hdr.cmd = IHDA_CODEC_RELEASE_STREAM_NOACK,
req.stream_id = dma_stream_id_;
codec_channel_->Write(&req, sizeof(req));
dma_stream_id_ = IHDA_INVALID_STREAM_ID;
dma_stream_tag_ = IHDA_INVALID_STREAM_TAG;
}
// Let go of our reference to the codec device channel.
codec_channel_ = nullptr;
// If we had published a device node, remove it now.
if (parent_device_ != nullptr) {
device_remove(stream_device_);
parent_device_ = nullptr;
}
}
DEBUG_LOG("Deactivate complete\n");
}
int
device_remove_all(void)
{
int i;
int res = 0;
for (i=dev_ptr-1; i>=0; i--)
res |= device_remove(devices[i]);
return res;
}
int mmc_unbind(struct udevice *dev)
{
struct udevice *bdev;
device_find_first_child(dev, &bdev);
if (bdev) {
device_remove(bdev);
device_unbind(bdev);
}
return 0;
}
/* Test that we can bind, probe, remove, unbind a driver */
static int dm_test_lifecycle(struct unit_test_state *uts)
{
struct dm_test_state *dms = uts->priv;
int op_count[DM_TEST_OP_COUNT];
struct udevice *dev, *test_dev;
int pingret;
int ret;
memcpy(op_count, dm_testdrv_op_count, sizeof(op_count));
ut_assertok(device_bind_by_name(dms->root, false, &driver_info_manual,
&dev));
ut_assert(dev);
ut_assert(dm_testdrv_op_count[DM_TEST_OP_BIND]
== op_count[DM_TEST_OP_BIND] + 1);
ut_assert(!dev->priv);
/* Probe the device - it should fail allocating private data */
dms->force_fail_alloc = 1;
ret = device_probe(dev);
ut_assert(ret == -ENOMEM);
ut_assert(dm_testdrv_op_count[DM_TEST_OP_PROBE]
== op_count[DM_TEST_OP_PROBE] + 1);
ut_assert(!dev->priv);
/* Try again without the alloc failure */
dms->force_fail_alloc = 0;
ut_assertok(device_probe(dev));
ut_assert(dm_testdrv_op_count[DM_TEST_OP_PROBE]
== op_count[DM_TEST_OP_PROBE] + 2);
ut_assert(dev->priv);
/* This should be device 3 in the uclass */
ut_assertok(uclass_find_device(UCLASS_TEST, 3, &test_dev));
ut_assert(dev == test_dev);
/* Try ping */
ut_assertok(test_ping(dev, 100, &pingret));
ut_assert(pingret == 102);
/* Now remove device 3 */
ut_asserteq(0, dm_testdrv_op_count[DM_TEST_OP_PRE_REMOVE]);
ut_assertok(device_remove(dev));
ut_asserteq(1, dm_testdrv_op_count[DM_TEST_OP_PRE_REMOVE]);
ut_asserteq(0, dm_testdrv_op_count[DM_TEST_OP_UNBIND]);
ut_asserteq(0, dm_testdrv_op_count[DM_TEST_OP_PRE_UNBIND]);
ut_assertok(device_unbind(dev));
ut_asserteq(1, dm_testdrv_op_count[DM_TEST_OP_UNBIND]);
ut_asserteq(1, dm_testdrv_op_count[DM_TEST_OP_PRE_UNBIND]);
return 0;
}
int usb_stop(void)
{
struct udevice *bus;
struct uclass *uc;
int err = 0, ret;
/* De-activate any devices that have been activated */
ret = uclass_get(UCLASS_USB, &uc);
if (ret)
return ret;
uclass_foreach_dev(bus, uc) {
ret = device_remove(bus);
if (ret && !err)
err = ret;
}
/**
* This test case is trying to test the following scenario:
* - All ethernet devices are not probed
* - "ethaddr" for all ethernet devices are not set
* - "ethact" is set to a valid ethernet device name
*
* With Sandbox default test configuration, all ethernet devices are
* probed after power-up, so we have to manually create such scenario:
* - Remove all ethernet devices
* - Remove all "ethaddr" environment variables
* - Set "ethact" to the first ethernet device
*
* Do a ping test to see if anything goes wrong.
*/
static int dm_test_eth_act(struct unit_test_state *uts)
{
struct udevice *dev[DM_TEST_ETH_NUM];
const char *ethname[DM_TEST_ETH_NUM] = {"eth@10002000", "eth@10003000",
"sbe5", "eth@10004000"};
const char *addrname[DM_TEST_ETH_NUM] = {"ethaddr", "eth5addr",
"eth3addr", "eth1addr"};
char ethaddr[DM_TEST_ETH_NUM][18];
int i;
memset(ethaddr, '\0', sizeof(ethaddr));
net_ping_ip = string_to_ip("1.1.2.2");
/* Prepare the test scenario */
for (i = 0; i < DM_TEST_ETH_NUM; i++) {
ut_assertok(uclass_find_device_by_name(UCLASS_ETH,
ethname[i], &dev[i]));
ut_assertok(device_remove(dev[i], DM_REMOVE_NORMAL));
/* Invalidate MAC address */
strncpy(ethaddr[i], env_get(addrname[i]), 17);
/* Must disable access protection for ethaddr before clearing */
env_set(".flags", addrname[i]);
env_set(addrname[i], NULL);
}
/* Set ethact to "eth@10002000" */
env_set("ethact", ethname[0]);
/* Segment fault might happen if something is wrong */
ut_asserteq(-ENODEV, net_loop(PING));
for (i = 0; i < DM_TEST_ETH_NUM; i++) {
/* Restore the env */
env_set(".flags", addrname[i]);
env_set(addrname[i], ethaddr[i]);
/* Probe the device again */
ut_assertok(device_probe(dev[i]));
}
env_set(".flags", NULL);
env_set("ethact", NULL);
return 0;
}
/* Remove all drivers and check that things work */
static int dm_test_remove(struct unit_test_state *uts)
{
struct udevice *dev;
int i;
for (i = 0; i < 3; i++) {
ut_assertok(uclass_find_device(UCLASS_TEST, i, &dev));
ut_assert(dev);
ut_assertf(dev->flags & DM_FLAG_ACTIVATED,
"Driver %d/%s not activated", i, dev->name);
ut_assertok(device_remove(dev));
ut_assertf(!(dev->flags & DM_FLAG_ACTIVATED),
"Driver %d/%s should have deactivated", i,
dev->name);
ut_assert(!dev->priv);
}
return 0;
}
int blk_unbind_all(int if_type)
{
struct uclass *uc;
struct udevice *dev, *next;
int ret;
ret = uclass_get(UCLASS_BLK, &uc);
if (ret)
return ret;
uclass_foreach_dev_safe(dev, next, uc) {
struct blk_desc *desc = dev_get_uclass_platdata(dev);
if (desc->if_type == if_type) {
ret = device_remove(dev);
if (ret)
return ret;
ret = device_unbind(dev);
if (ret)
return ret;
}
}
return 0;
}
void spi_free_slave(struct spi_slave *slave)
{
device_remove(slave->dev);
slave->dev = NULL;
}
int spi_get_bus_and_cs(int busnum, int cs, int speed, int mode,
const char *drv_name, const char *dev_name,
struct udevice **busp, struct spi_slave **devp)
{
struct udevice *bus, *dev;
struct dm_spi_slave_platdata *plat;
bool created = false;
int ret;
ret = uclass_get_device_by_seq(UCLASS_SPI, busnum, &bus);
if (ret) {
printf("Invalid bus %d (err=%d)\n", busnum, ret);
return ret;
}
ret = spi_find_chip_select(bus, cs, &dev);
/*
* If there is no such device, create one automatically. This means
* that we don't need a device tree node or platform data for the
* SPI flash chip - we will bind to the correct driver.
*/
if (ret == -ENODEV && drv_name) {
debug("%s: Binding new device '%s', busnum=%d, cs=%d, driver=%s\n",
__func__, dev_name, busnum, cs, drv_name);
ret = device_bind_driver(bus, drv_name, dev_name, &dev);
if (ret)
return ret;
plat = dev_get_parent_platdata(dev);
plat->cs = cs;
plat->max_hz = speed;
plat->mode = mode;
created = true;
} else if (ret) {
printf("Invalid chip select %d:%d (err=%d)\n", busnum, cs,
ret);
return ret;
}
if (!device_active(dev)) {
struct spi_slave *slave;
ret = device_probe(dev);
if (ret)
goto err;
slave = dev_get_parent_priv(dev);
slave->dev = dev;
}
plat = dev_get_parent_platdata(dev);
if (!speed) {
speed = plat->max_hz;
mode = plat->mode;
}
ret = spi_set_speed_mode(bus, speed, mode);
if (ret)
goto err;
*busp = bus;
*devp = dev_get_parent_priv(dev);
debug("%s: bus=%p, slave=%p\n", __func__, bus, *devp);
return 0;
err:
debug("%s: Error path, created=%d, device '%s'\n", __func__,
created, dev->name);
if (created) {
device_remove(dev);
device_unbind(dev);
}
return ret;
}
int spi_flash_remove(struct udevice *dev)
{
return device_remove(dev);
}
void spi_free_slave(struct spi_slave *slave)
{
device_remove(slave->dev, DM_REMOVE_NORMAL);
slave->dev = NULL;
}
/* Test that we can find buses and chip-selects */
static int dm_test_spi_find(struct dm_test_state *dms)
{
struct sandbox_state *state = state_get_current();
struct spi_slave *slave;
struct udevice *bus, *dev;
const int busnum = 0, cs = 0, mode = 0, speed = 1000000, cs_b = 1;
struct spi_cs_info info;
int of_offset;
ut_asserteq(-ENODEV, uclass_find_device_by_seq(UCLASS_SPI, busnum,
false, &bus));
/*
* spi_post_bind() will bind devices to chip selects. Check this then
* remove the emulation and the slave device.
*/
ut_asserteq(0, uclass_get_device_by_seq(UCLASS_SPI, busnum, &bus));
ut_assertok(spi_cs_info(bus, cs, &info));
of_offset = info.dev->of_offset;
device_remove(info.dev);
device_unbind(info.dev);
/*
* Even though the device is gone, the sandbox SPI drivers always
* reports that CS 0 is present
*/
ut_assertok(spi_cs_info(bus, cs, &info));
ut_asserteq_ptr(NULL, info.dev);
/* This finds nothing because we removed the device */
ut_asserteq(-ENODEV, spi_find_bus_and_cs(busnum, cs, &bus, &dev));
ut_asserteq(-ENODEV, spi_get_bus_and_cs(busnum, cs, speed, mode,
NULL, 0, &bus, &slave));
/*
* This forces the device to be re-added, but there is no emulation
* connected so the probe will fail. We require that bus is left
* alone on failure, and that the spi_get_bus_and_cs() does not add
* a 'partially-inited' device.
*/
ut_asserteq(-ENODEV, spi_find_bus_and_cs(busnum, cs, &bus, &dev));
ut_asserteq(-ENOENT, spi_get_bus_and_cs(busnum, cs, speed, mode,
"spi_flash_std", "name", &bus,
&slave));
sandbox_sf_unbind_emul(state_get_current(), busnum, cs);
ut_assertok(spi_cs_info(bus, cs, &info));
ut_asserteq_ptr(NULL, info.dev);
/* Add the emulation and try again */
ut_assertok(sandbox_sf_bind_emul(state, busnum, cs, bus, of_offset,
"name"));
ut_assertok(spi_find_bus_and_cs(busnum, cs, &bus, &dev));
ut_assertok(spi_get_bus_and_cs(busnum, cs, speed, mode,
"spi_flash_std", "name", &bus, &slave));
ut_assertok(spi_cs_info(bus, cs, &info));
ut_asserteq_ptr(info.dev, slave->dev);
/* We should be able to add something to another chip select */
ut_assertok(sandbox_sf_bind_emul(state, busnum, cs_b, bus, of_offset,
"name"));
ut_assertok(spi_get_bus_and_cs(busnum, cs_b, speed, mode,
"spi_flash_std", "name", &bus, &slave));
ut_assertok(spi_cs_info(bus, cs_b, &info));
ut_asserteq_ptr(info.dev, slave->dev);
/*
* Since we are about to destroy all devices, we must tell sandbox
* to forget the emulation device
*/
sandbox_sf_unbind_emul(state_get_current(), busnum, cs);
sandbox_sf_unbind_emul(state_get_current(), busnum, cs_b);
return 0;
}
static void mbr_unbind(void* ctx) {
mbrpart_device_t* device = ctx;
device_remove(device->zxdev);
}
static int test_bus_parent_platdata(struct unit_test_state *uts)
{
struct dm_test_parent_platdata *plat;
struct udevice *bus, *dev;
int child_count;
/* Check that the bus has no children */
ut_assertok(uclass_find_device(UCLASS_TEST_BUS, 0, &bus));
device_find_first_child(bus, &dev);
ut_asserteq_ptr(NULL, dev);
ut_assertok(uclass_get_device(UCLASS_TEST_BUS, 0, &bus));
for (device_find_first_child(bus, &dev), child_count = 0;
dev;
device_find_next_child(&dev)) {
/* Check that platform data is allocated */
plat = dev_get_parent_platdata(dev);
ut_assert(plat != NULL);
/*
* Check that it is not affected by the device being
* probed/removed
*/
plat->count++;
ut_asserteq(1, plat->count);
device_probe(dev);
device_remove(dev);
ut_asserteq_ptr(plat, dev_get_parent_platdata(dev));
ut_asserteq(1, plat->count);
ut_assertok(device_probe(dev));
child_count++;
}
ut_asserteq(3, child_count);
/* Removing the bus should also have no effect (it is still bound) */
device_remove(bus);
for (device_find_first_child(bus, &dev), child_count = 0;
dev;
device_find_next_child(&dev)) {
/* Check that platform data is allocated */
plat = dev_get_parent_platdata(dev);
ut_assert(plat != NULL);
ut_asserteq(1, plat->count);
child_count++;
}
ut_asserteq(3, child_count);
/* Unbind all the children */
do {
device_find_first_child(bus, &dev);
if (dev)
device_unbind(dev);
} while (dev);
/* Now the child platdata should be removed and re-added */
device_probe(bus);
for (device_find_first_child(bus, &dev), child_count = 0;
dev;
device_find_next_child(&dev)) {
/* Check that platform data is allocated */
plat = dev_get_parent_platdata(dev);
ut_assert(plat != NULL);
ut_asserteq(0, plat->count);
child_count++;
}
ut_asserteq(3, child_count);
return 0;
}
static int mbr_bind_thread(void* arg) {
mbrpart_device_t* first_dev = (mbrpart_device_t*)arg;
zx_device_t* dev = first_dev->parent;
// Classic MBR supports 4 partitions.
uint8_t partition_count = 0;
block_impl_protocol_t bp;
memcpy(&bp, &first_dev->bp, sizeof(bp));
block_info_t block_info;
size_t block_op_size;
block_impl_query(&bp, &block_info, &block_op_size);
zx_handle_t vmo = ZX_HANDLE_INVALID;
block_op_t* bop = calloc(1, block_op_size);
if (bop == NULL) {
goto unbind;
}
// We need to read at least 512B to parse the MBR. Determine if we should
// read the device's block size or we should ready exactly 512B.
size_t iosize = 0;
if (block_info.block_size >= MBR_SIZE) {
iosize = block_info.block_size;
} else {
// Make sure we're reading some multiple of the block size.
iosize = DIV_ROUND_UP(MBR_SIZE, block_info.block_size) * block_info.block_size;
}
if (zx_vmo_create(iosize, 0, &vmo) != ZX_OK) {
zxlogf(ERROR, "mbr: cannot allocate vmo\n");
goto unbind;
}
sync_completion_t cplt = SYNC_COMPLETION_INIT;
bop->command = BLOCK_OP_READ;
bop->rw.vmo = vmo;
bop->rw.length = iosize / block_info.block_size;
bop->rw.offset_dev = 0;
bop->rw.offset_vmo = 0;
bp.ops->queue(bp.ctx, bop, mbr_read_sync_complete, &cplt);
sync_completion_wait(&cplt, ZX_TIME_INFINITE);
if (bop->command != ZX_OK) {
zxlogf(ERROR, "mbr: could not read mbr from device, retcode = %d\n", bop->command);
goto unbind;
}
uint8_t buffer[MBR_SIZE];
mbr_t* mbr = (mbr_t*)buffer;
if (vmo_read(vmo, buffer, 0, MBR_SIZE) != ZX_OK) {
goto unbind;
}
// Validate the MBR boot signature.
if (mbr->boot_signature != MBR_BOOT_SIGNATURE) {
zxlogf(ERROR, "mbr: invalid mbr boot signature, expected 0x%04x got 0x%04x\n",
MBR_BOOT_SIGNATURE, mbr->boot_signature);
goto unbind;
}
// Parse the partitions out of the MBR.
for (; partition_count < MBR_NUM_PARTITIONS; partition_count++) {
mbr_partition_entry_t* entry = &mbr->partition[partition_count];
if (entry->type == PARTITION_TYPE_NONE) {
// This partition entry is empty and does not refer to a partition,
// skip it.
continue;
}
zxlogf(SPEW, "mbr: found partition, entry = %d, type = 0x%02x, "
"start = %u, length = %u\n",
partition_count + 1, entry->type, entry->start_sector_lba,
entry->sector_partition_length);
mbrpart_device_t* pdev;
// use first_dev for first partition
if (first_dev) {
pdev = first_dev;
} else {
pdev = calloc(1, sizeof(*pdev));
if (!pdev) {
zxlogf(ERROR, "mbr: out of memory\n");
goto unbind;
}
pdev->parent = dev;
memcpy(&pdev->bp, &bp, sizeof(bp));
}
memcpy(&pdev->partition, entry, sizeof(*entry));
block_info.block_count = pdev->partition.sector_partition_length;
memcpy(&pdev->info, &block_info, sizeof(block_info));
pdev->block_op_size = block_op_size;
if (first_dev) {
// make our initial device visible and use if for partition zero
device_make_visible(first_dev->zxdev);
first_dev = NULL;
} else {
char name[16];
snprintf(name, sizeof(name), "part-%03u",partition_count);
device_add_args_t args = {
.version = DEVICE_ADD_ARGS_VERSION,
.name = name,
.ctx = pdev,
.ops = &mbr_proto,
.proto_id = ZX_PROTOCOL_BLOCK_IMPL,
.proto_ops = &block_ops,
};
if (device_add(dev, &args, &pdev->zxdev) != ZX_OK) {
free(pdev);
continue;
}
}
}
free(bop);
zx_handle_close(vmo);
return 0;
unbind:
free(bop);
zx_handle_close(vmo);
if (first_dev) {
// handle case where no partitions were found
device_remove(first_dev->zxdev);
}
return -1;
}
void spi_flash_free(struct spi_flash *flash)
{
device_remove(flash->spi->dev, DM_REMOVE_NORMAL);
}
void spi_flash_free(struct spi_flash *flash)
{
device_remove(flash->spi->dev);
}
static int do_cros_ec(cmd_tbl_t *cmdtp, int flag, int argc, char * const argv[])
{
struct cros_ec_dev *dev;
struct udevice *udev;
const char *cmd;
int ret = 0;
if (argc < 2)
return CMD_RET_USAGE;
cmd = argv[1];
if (0 == strcmp("init", cmd)) {
/* Remove any existing device */
ret = uclass_find_device(UCLASS_CROS_EC, 0, &udev);
if (!ret)
device_remove(udev);
ret = uclass_get_device(UCLASS_CROS_EC, 0, &udev);
if (ret) {
printf("Could not init cros_ec device (err %d)\n", ret);
return 1;
}
return 0;
}
ret = uclass_get_device(UCLASS_CROS_EC, 0, &udev);
if (ret) {
printf("Cannot get cros-ec device (err=%d)\n", ret);
return 1;
}
dev = dev_get_uclass_priv(udev);
if (0 == strcmp("id", cmd)) {
char id[MSG_BYTES];
if (cros_ec_read_id(dev, id, sizeof(id))) {
debug("%s: Could not read KBC ID\n", __func__);
return 1;
}
printf("%s\n", id);
} else if (0 == strcmp("info", cmd)) {
struct ec_response_mkbp_info info;
if (cros_ec_info(dev, &info)) {
debug("%s: Could not read KBC info\n", __func__);
return 1;
}
printf("rows = %u\n", info.rows);
printf("cols = %u\n", info.cols);
printf("switches = %#x\n", info.switches);
} else if (0 == strcmp("curimage", cmd)) {
enum ec_current_image image;
if (cros_ec_read_current_image(dev, &image)) {
debug("%s: Could not read KBC image\n", __func__);
return 1;
}
printf("%d\n", image);
} else if (0 == strcmp("hash", cmd)) {
struct ec_response_vboot_hash hash;
int i;
if (cros_ec_read_hash(dev, &hash)) {
debug("%s: Could not read KBC hash\n", __func__);
return 1;
}
if (hash.hash_type == EC_VBOOT_HASH_TYPE_SHA256)
printf("type: SHA-256\n");
else
printf("type: %d\n", hash.hash_type);
printf("offset: 0x%08x\n", hash.offset);
printf("size: 0x%08x\n", hash.size);
printf("digest: ");
for (i = 0; i < hash.digest_size; i++)
printf("%02x", hash.hash_digest[i]);
printf("\n");
} else if (0 == strcmp("reboot", cmd)) {
int region;
enum ec_reboot_cmd cmd;
if (argc >= 3 && !strcmp(argv[2], "cold"))
cmd = EC_REBOOT_COLD;
else {
region = cros_ec_decode_region(argc - 2, argv + 2);
if (region == EC_FLASH_REGION_RO)
cmd = EC_REBOOT_JUMP_RO;
else if (region == EC_FLASH_REGION_RW)
cmd = EC_REBOOT_JUMP_RW;
else
return CMD_RET_USAGE;
}
if (cros_ec_reboot(dev, cmd, 0)) {
debug("%s: Could not reboot KBC\n", __func__);
return 1;
}
} else if (0 == strcmp("events", cmd)) {
uint32_t events;
if (cros_ec_get_host_events(dev, &events)) {
debug("%s: Could not read host events\n", __func__);
return 1;
}
printf("0x%08x\n", events);
} else if (0 == strcmp("clrevents", cmd)) {
uint32_t events = 0x7fffffff;
if (argc >= 3)
events = simple_strtol(argv[2], NULL, 0);
if (cros_ec_clear_host_events(dev, events)) {
debug("%s: Could not clear host events\n", __func__);
return 1;
}
} else if (0 == strcmp("read", cmd)) {
ret = do_read_write(dev, 0, argc, argv);
if (ret > 0)
return CMD_RET_USAGE;
} else if (0 == strcmp("write", cmd)) {
ret = do_read_write(dev, 1, argc, argv);
if (ret > 0)
return CMD_RET_USAGE;
} else if (0 == strcmp("erase", cmd)) {
int region = cros_ec_decode_region(argc - 2, argv + 2);
uint32_t offset, size;
if (region == -1)
return CMD_RET_USAGE;
if (cros_ec_flash_offset(dev, region, &offset, &size)) {
debug("%s: Could not read region info\n", __func__);
ret = -1;
} else {
ret = cros_ec_flash_erase(dev, offset, size);
if (ret) {
debug("%s: Could not erase region\n",
__func__);
}
}
} else if (0 == strcmp("regioninfo", cmd)) {
int region = cros_ec_decode_region(argc - 2, argv + 2);
uint32_t offset, size;
if (region == -1)
return CMD_RET_USAGE;
ret = cros_ec_flash_offset(dev, region, &offset, &size);
if (ret) {
debug("%s: Could not read region info\n", __func__);
} else {
printf("Region: %s\n", region == EC_FLASH_REGION_RO ?
"RO" : "RW");
printf("Offset: %x\n", offset);
printf("Size: %x\n", size);
}
} else if (0 == strcmp("vbnvcontext", cmd)) {
uint8_t block[EC_VBNV_BLOCK_SIZE];
char buf[3];
int i, len;
unsigned long result;
if (argc <= 2) {
ret = cros_ec_read_vbnvcontext(dev, block);
if (!ret) {
printf("vbnv_block: ");
for (i = 0; i < EC_VBNV_BLOCK_SIZE; i++)
printf("%02x", block[i]);
putc('\n');
}
} else {
/*
* TODO(clchiou): Move this to a utility function as
* cmd_spi might want to call it.
*/
memset(block, 0, EC_VBNV_BLOCK_SIZE);
len = strlen(argv[2]);
buf[2] = '\0';
for (i = 0; i < EC_VBNV_BLOCK_SIZE; i++) {
if (i * 2 >= len)
break;
buf[0] = argv[2][i * 2];
if (i * 2 + 1 >= len)
buf[1] = '0';
else
buf[1] = argv[2][i * 2 + 1];
strict_strtoul(buf, 16, &result);
block[i] = result;
}
ret = cros_ec_write_vbnvcontext(dev, block);
}
if (ret) {
debug("%s: Could not %s VbNvContext\n", __func__,
argc <= 2 ? "read" : "write");
}
} else if (0 == strcmp("test", cmd)) {
int result = cros_ec_test(dev);
if (result)
printf("Test failed with error %d\n", result);
else
puts("Test passed\n");
} else if (0 == strcmp("version", cmd)) {
struct ec_response_get_version *p;
char *build_string;
ret = cros_ec_read_version(dev, &p);
if (!ret) {
/* Print versions */
printf("RO version: %1.*s\n",
(int)sizeof(p->version_string_ro),
p->version_string_ro);
printf("RW version: %1.*s\n",
(int)sizeof(p->version_string_rw),
p->version_string_rw);
printf("Firmware copy: %s\n",
(p->current_image <
ARRAY_SIZE(ec_current_image_name) ?
ec_current_image_name[p->current_image] :
"?"));
ret = cros_ec_read_build_info(dev, &build_string);
if (!ret)
printf("Build info: %s\n", build_string);
}
} else if (0 == strcmp("ldo", cmd)) {
uint8_t index, state;
char *endp;
if (argc < 3)
return CMD_RET_USAGE;
index = simple_strtoul(argv[2], &endp, 10);
if (*argv[2] == 0 || *endp != 0)
return CMD_RET_USAGE;
if (argc > 3) {
state = simple_strtoul(argv[3], &endp, 10);
if (*argv[3] == 0 || *endp != 0)
return CMD_RET_USAGE;
ret = cros_ec_set_ldo(udev, index, state);
} else {
ret = cros_ec_get_ldo(udev, index, &state);
if (!ret) {
printf("LDO%d: %s\n", index,
state == EC_LDO_STATE_ON ?
"on" : "off");
}
}
if (ret) {
debug("%s: Could not access LDO%d\n", __func__, index);
return ret;
}
} else {
return CMD_RET_USAGE;
}
if (ret < 0) {
printf("Error: CROS-EC command failed (error %d)\n", ret);
ret = 1;
}
return ret;
}
int host_dev_bind(int devnum, char *filename)
{
struct host_block_dev *host_dev;
struct udevice *dev;
char dev_name[20], *str, *fname;
int ret, fd;
/* Remove and unbind the old device, if any */
ret = blk_get_device(IF_TYPE_HOST, devnum, &dev);
if (ret == 0) {
ret = device_remove(dev);
if (ret)
return ret;
ret = device_unbind(dev);
if (ret)
return ret;
} else if (ret != -ENODEV) {
return ret;
}
if (!filename)
return 0;
snprintf(dev_name, sizeof(dev_name), "host%d", devnum);
str = strdup(dev_name);
if (!str)
return -ENOMEM;
fname = strdup(filename);
if (!fname) {
free(str);
return -ENOMEM;
}
fd = os_open(filename, OS_O_RDWR);
if (fd == -1) {
printf("Failed to access host backing file '%s'\n", filename);
ret = -ENOENT;
goto err;
}
ret = blk_create_device(gd->dm_root, "sandbox_host_blk", str,
IF_TYPE_HOST, devnum, 512,
os_lseek(fd, 0, OS_SEEK_END), &dev);
if (ret)
goto err_file;
ret = device_probe(dev);
if (ret) {
device_unbind(dev);
goto err_file;
}
host_dev = dev_get_priv(dev);
host_dev->fd = fd;
host_dev->filename = fname;
return blk_prepare_device(dev);
err_file:
os_close(fd);
err:
free(fname);
free(str);
return ret;
}
static int dm_test_children(struct unit_test_state *uts)
{
struct dm_test_state *dms = uts->priv;
struct udevice *top[NODE_COUNT];
struct udevice *child[NODE_COUNT];
struct udevice *grandchild[NODE_COUNT];
struct udevice *dev;
int total;
int ret;
int i;
/* We don't care about the numbering for this test */
dms->skip_post_probe = 1;
ut_assert(NODE_COUNT > 5);
/* First create 10 top-level children */
ut_assertok(create_children(uts, dms->root, NODE_COUNT, 0, top));
/* Now a few have their own children */
ut_assertok(create_children(uts, top[2], NODE_COUNT, 2, NULL));
ut_assertok(create_children(uts, top[5], NODE_COUNT, 5, child));
/* And grandchildren */
for (i = 0; i < NODE_COUNT; i++)
ut_assertok(create_children(uts, child[i], NODE_COUNT, 50 * i,
i == 2 ? grandchild : NULL));
/* Check total number of devices */
total = NODE_COUNT * (3 + NODE_COUNT);
ut_asserteq(total, dm_testdrv_op_count[DM_TEST_OP_BIND]);
/* Try probing one of the grandchildren */
ut_assertok(uclass_get_device(UCLASS_TEST,
NODE_COUNT * 3 + 2 * NODE_COUNT, &dev));
ut_asserteq_ptr(grandchild[0], dev);
/*
* This should have probed the child and top node also, for a total
* of 3 nodes.
*/
ut_asserteq(3, dm_testdrv_op_count[DM_TEST_OP_PROBE]);
/* Probe the other grandchildren */
for (i = 1; i < NODE_COUNT; i++)
ut_assertok(device_probe(grandchild[i]));
ut_asserteq(2 + NODE_COUNT, dm_testdrv_op_count[DM_TEST_OP_PROBE]);
/* Probe everything */
for (ret = uclass_first_device(UCLASS_TEST, &dev);
dev;
ret = uclass_next_device(&dev))
;
ut_assertok(ret);
ut_asserteq(total, dm_testdrv_op_count[DM_TEST_OP_PROBE]);
/* Remove a top-level child and check that the children are removed */
ut_assertok(device_remove(top[2]));
ut_asserteq(NODE_COUNT + 1, dm_testdrv_op_count[DM_TEST_OP_REMOVE]);
dm_testdrv_op_count[DM_TEST_OP_REMOVE] = 0;
/* Try one with grandchildren */
ut_assertok(uclass_get_device(UCLASS_TEST, 5, &dev));
ut_asserteq_ptr(dev, top[5]);
ut_assertok(device_remove(dev));
ut_asserteq(1 + NODE_COUNT * (1 + NODE_COUNT),
dm_testdrv_op_count[DM_TEST_OP_REMOVE]);
/* Try the same with unbind */
ut_assertok(device_unbind(top[2]));
ut_asserteq(NODE_COUNT + 1, dm_testdrv_op_count[DM_TEST_OP_UNBIND]);
dm_testdrv_op_count[DM_TEST_OP_UNBIND] = 0;
/* Try one with grandchildren */
ut_assertok(uclass_get_device(UCLASS_TEST, 5, &dev));
ut_asserteq_ptr(dev, top[6]);
ut_assertok(device_unbind(top[5]));
ut_asserteq(1 + NODE_COUNT * (1 + NODE_COUNT),
dm_testdrv_op_count[DM_TEST_OP_UNBIND]);
return 0;
}
/**
* connman_device_unregister:
* @device: device structure
*
* Unregister device with the system
*/
void connman_device_unregister(struct connman_device *device)
{
__connman_storage_save_device(device);
device_remove(device);
}