static void gdlm_recover_done(void *arg, struct dlm_slot *slots, int num_slots,
int our_slot, uint32_t generation)
{
struct gfs2_sbd *sdp = arg;
struct lm_lockstruct *ls = &sdp->sd_lockstruct;
/* ensure the ls jid arrays are large enough */
set_recover_size(sdp, slots, num_slots);
spin_lock(&ls->ls_recover_spin);
ls->ls_recover_start = generation;
if (!ls->ls_recover_mount) {
ls->ls_recover_mount = generation;
ls->ls_jid = our_slot - 1;
}
if (!test_bit(DFL_UNMOUNT, &ls->ls_recover_flags))
queue_delayed_work(gfs2_control_wq, &sdp->sd_control_work, 0);
clear_bit(DFL_DLM_RECOVERY, &ls->ls_recover_flags);
smp_mb__after_clear_bit();
wake_up_bit(&ls->ls_recover_flags, DFL_DLM_RECOVERY);
spin_unlock(&ls->ls_recover_spin);
}
fastcall void smp_invalidate_interrupt(struct pt_regs *regs)
{
unsigned long cpu;
cpu = get_cpu();
if (!cpu_isset(cpu, flush_cpumask))
goto out;
/*
* This was a BUG() but until someone can quote me the
* line from the intel manual that guarantees an IPI to
* multiple CPUs is retried _only_ on the erroring CPUs
* its staying as a return
*
* BUG();
*/
if (flush_mm == per_cpu(cpu_tlbstate, cpu).active_mm) {
if (per_cpu(cpu_tlbstate, cpu).state == TLBSTATE_OK) {
if (flush_va == FLUSH_ALL)
local_flush_tlb();
else
__flush_tlb_one(flush_va);
} else
leave_mm(cpu);
}
ack_APIC_irq();
smp_mb__before_clear_bit();
cpu_clear(cpu, flush_cpumask);
smp_mb__after_clear_bit();
out:
put_cpu_no_resched();
}
void arch_trigger_all_cpu_backtrace(void)
{
int i;
if (test_and_set_bit(0, &backtrace_flag))
/*
* If there is already a trigger_all_cpu_backtrace() in progress
* (backtrace_flag == 1), don't output double cpu dump infos.
*/
return;
cpumask_copy(to_cpumask(backtrace_mask), cpu_online_mask);
printk(KERN_INFO "sending NMI to all CPUs:\n");
apic->send_IPI_all(NMI_VECTOR);
/* Wait for up to 10 seconds for all CPUs to do the backtrace */
for (i = 0; i < 10 * 1000; i++) {
if (cpumask_empty(to_cpumask(backtrace_mask)))
break;
mdelay(1);
}
clear_bit(0, &backtrace_flag);
smp_mb__after_clear_bit();
}
static void
__xprt_lock_write_next(struct rpc_xprt *xprt)
{
struct rpc_task *task;
if (test_and_set_bit(XPRT_LOCKED, &xprt->sockstate))
return;
if (!xprt->nocong && RPCXPRT_CONGESTED(xprt))
goto out_unlock;
task = rpc_wake_up_next(&xprt->resend);
if (!task) {
task = rpc_wake_up_next(&xprt->sending);
if (!task)
goto out_unlock;
}
if (xprt->nocong || __xprt_get_cong(xprt, task)) {
struct rpc_rqst *req = task->tk_rqstp;
xprt->snd_task = task;
if (req) {
req->rq_bytes_sent = 0;
req->rq_ntrans++;
}
return;
}
out_unlock:
smp_mb__before_clear_bit();
clear_bit(XPRT_LOCKED, &xprt->sockstate);
smp_mb__after_clear_bit();
}
void arch_trigger_all_cpu_backtrace(void)
{
int i;
if (test_and_set_bit(0, &backtrace_flag))
/*
*/
return;
cpumask_copy(to_cpumask(backtrace_mask), cpu_online_mask);
printk(KERN_INFO "sending NMI to all CPUs:\n");
apic->send_IPI_all(NMI_VECTOR);
/* */
for (i = 0; i < 10 * 1000; i++) {
if (cpumask_empty(to_cpumask(backtrace_mask)))
break;
mdelay(1);
}
clear_bit(0, &backtrace_flag);
smp_mb__after_clear_bit();
}
int nfs_writepages(struct address_space *mapping, struct writeback_control *wbc)
{
struct inode *inode = mapping->host;
unsigned long *bitlock = &NFS_I(inode)->flags;
struct nfs_pageio_descriptor pgio;
int err;
/* Stop dirtying of new pages while we sync */
err = wait_on_bit_lock(bitlock, NFS_INO_FLUSHING,
nfs_wait_bit_killable, TASK_KILLABLE);
if (err)
goto out_err;
nfs_inc_stats(inode, NFSIOS_VFSWRITEPAGES);
nfs_pageio_init_write(&pgio, inode, wb_priority(wbc));
err = write_cache_pages(mapping, wbc, nfs_writepages_callback, &pgio);
nfs_pageio_complete(&pgio);
clear_bit_unlock(NFS_INO_FLUSHING, bitlock);
smp_mb__after_clear_bit();
wake_up_bit(bitlock, NFS_INO_FLUSHING);
if (err < 0)
goto out_err;
err = pgio.pg_error;
if (err < 0)
goto out_err;
return 0;
out_err:
return err;
}
/**
* fscache_object_lookup_negative - Note negative cookie lookup
* @object: Object pointing to cookie to mark
*
* Note negative lookup, permitting those waiting to read data from an already
* existing backing object to continue as there's no data for them to read.
*/
void fscache_object_lookup_negative(struct fscache_object *object)
{
struct fscache_cookie *cookie = object->cookie;
_enter("{OBJ%x,%s}",
object->debug_id, fscache_object_states[object->state]);
spin_lock(&object->lock);
if (object->state == FSCACHE_OBJECT_LOOKING_UP) {
fscache_stat(&fscache_n_object_lookups_negative);
/* transit here to allow write requests to begin stacking up
* and read requests to begin returning ENODATA */
object->state = FSCACHE_OBJECT_CREATING;
spin_unlock(&object->lock);
set_bit(FSCACHE_COOKIE_PENDING_FILL, &cookie->flags);
set_bit(FSCACHE_COOKIE_NO_DATA_YET, &cookie->flags);
_debug("wake up lookup %p", &cookie->flags);
smp_mb__before_clear_bit();
clear_bit(FSCACHE_COOKIE_LOOKING_UP, &cookie->flags);
smp_mb__after_clear_bit();
wake_up_bit(&cookie->flags, FSCACHE_COOKIE_LOOKING_UP);
set_bit(FSCACHE_OBJECT_EV_REQUEUE, &object->events);
} else {
ASSERTCMP(object->state, ==, FSCACHE_OBJECT_CREATING);
spin_unlock(&object->lock);
}
_leave("");
}
/*
* Serialize write access to sockets, in order to prevent different
* requests from interfering with each other.
* Also prevents TCP socket connects from colliding with writes.
*/
static int
__xprt_lock_write(struct rpc_xprt *xprt, struct rpc_task *task)
{
struct rpc_rqst *req = task->tk_rqstp;
if (test_and_set_bit(XPRT_LOCKED, &xprt->sockstate)) {
if (task == xprt->snd_task)
return 1;
if (task == NULL)
return 0;
goto out_sleep;
}
if (xprt->nocong || __xprt_get_cong(xprt, task)) {
xprt->snd_task = task;
if (req) {
req->rq_bytes_sent = 0;
req->rq_ntrans++;
}
return 1;
}
smp_mb__before_clear_bit();
clear_bit(XPRT_LOCKED, &xprt->sockstate);
smp_mb__after_clear_bit();
out_sleep:
dprintk("RPC: %4d failed to lock socket %p\n", task->tk_pid, xprt);
task->tk_timeout = 0;
task->tk_status = -EAGAIN;
if (req && req->rq_ntrans)
rpc_sleep_on(&xprt->resend, task, NULL, NULL);
else
rpc_sleep_on(&xprt->sending, task, NULL, NULL);
return 0;
}
static int dvb_usb_stop_feed(struct dvb_demux_feed *dvbdmxfeed)
{
struct dvb_usb_adapter *adap = dvbdmxfeed->demux->priv;
struct dvb_usb_device *d = adap_to_d(adap);
int ret = 0;
dev_dbg(&d->udev->dev,
"%s: adap=%d active_fe=%d feed_type=%d setting pid [%s]: %04x (%04d) at index %d\n",
__func__, adap->id, adap->active_fe, dvbdmxfeed->type,
adap->pid_filtering ? "yes" : "no", dvbdmxfeed->pid,
dvbdmxfeed->pid, dvbdmxfeed->index);
if (adap->active_fe == -1)
return -EINVAL;
/* remove PID from device HW PID filter */
if (adap->pid_filtering && adap->props->pid_filter) {
ret = adap->props->pid_filter(adap, dvbdmxfeed->index,
dvbdmxfeed->pid, 0);
if (ret)
dev_err(&d->udev->dev, "%s: pid_filter() failed=%d\n",
KBUILD_MODNAME, ret);
}
/* we cannot stop streaming until last PID is removed */
if (--adap->feed_count > 0)
goto skip_feed_stop;
/* ask device to stop streaming */
if (d->props->streaming_ctrl) {
ret = d->props->streaming_ctrl(adap->fe[adap->active_fe], 0);
if (ret)
dev_err(&d->udev->dev,
"%s: streaming_ctrl() failed=%d\n",
KBUILD_MODNAME, ret);
}
/* disable HW PID filter */
if (adap->pid_filtering && adap->props->pid_filter_ctrl) {
ret = adap->props->pid_filter_ctrl(adap, 0);
if (ret)
dev_err(&d->udev->dev,
"%s: pid_filter_ctrl() failed=%d\n",
KBUILD_MODNAME, ret);
}
/* kill USB streaming packets */
usb_urb_killv2(&adap->stream);
/* clear 'streaming' status bit */
clear_bit(ADAP_STREAMING, &adap->state_bits);
smp_mb__after_clear_bit();
wake_up_bit(&adap->state_bits, ADAP_STREAMING);
skip_feed_stop:
if (ret)
dev_dbg(&d->udev->dev, "%s: failed=%d\n", __func__, ret);
return ret;
}
/*
* clearing the blocking flag will take the spinlock again.
* After this you can't safely schedule
*/
void btrfs_clear_lock_blocking(struct extent_buffer *eb)
{
if (test_bit(EXTENT_BUFFER_BLOCKING, &eb->bflags)) {
spin_nested(eb);
clear_bit(EXTENT_BUFFER_BLOCKING, &eb->bflags);
smp_mb__after_clear_bit();
}
/* exit with the spin lock held */
}
static int rtlx_release(struct inode *inode, struct file *filp)
{
int minor = MINOR(inode->i_rdev);
clear_bit(RTLX_STATE_OPENED, &rtlx->channel[minor].lx_state);
smp_mb__after_clear_bit();
return 0;
}
/*
* Unlock cookie management lock
*/
static inline void nfs_fscache_inode_unlock(struct inode *inode)
{
struct nfs_inode *nfsi = NFS_I(inode);
smp_mb__before_clear_bit();
clear_bit(NFS_INO_FSCACHE_LOCK, &nfsi->flags);
smp_mb__after_clear_bit();
wake_up_bit(&nfsi->flags, NFS_INO_FSCACHE_LOCK);
}
static void
nfs_iocounter_dec(struct nfs_io_counter *c)
{
if (atomic_dec_and_test(&c->io_count)) {
clear_bit(NFS_IO_INPROGRESS, &c->flags);
smp_mb__after_clear_bit();
wake_up_bit(&c->flags, NFS_IO_INPROGRESS);
}
}
/* Performing the configuration space reads/writes must not be done in atomic
* context because some of the pci_* functions can sleep (mostly due to ACPI
* use of semaphores). This function is intended to be called from a work
* queue in process context taking a struct pciback_device as a parameter */
void pciback_do_op(struct work_struct *work)
{
struct pciback_device *pdev = container_of(work, struct pciback_device, op_work);
struct pci_dev *dev;
struct xen_pci_op *op = &pdev->sh_info->op;
dev = pciback_get_pci_dev(pdev, op->domain, op->bus, op->devfn);
if (dev == NULL)
op->err = XEN_PCI_ERR_dev_not_found;
else
{
switch (op->cmd)
{
case XEN_PCI_OP_conf_read:
op->err = pciback_config_read(dev,
op->offset, op->size, &op->value);
break;
case XEN_PCI_OP_conf_write:
op->err = pciback_config_write(dev,
op->offset, op->size, op->value);
break;
#ifdef CONFIG_PCI_MSI
case XEN_PCI_OP_enable_msi:
op->err = pciback_enable_msi(pdev, dev, op);
break;
case XEN_PCI_OP_disable_msi:
op->err = pciback_disable_msi(pdev, dev, op);
break;
case XEN_PCI_OP_enable_msix:
op->err = pciback_enable_msix(pdev, dev, op);
break;
case XEN_PCI_OP_disable_msix:
op->err = pciback_disable_msix(pdev, dev, op);
break;
#endif
default:
op->err = XEN_PCI_ERR_not_implemented;
break;
}
}
/* Tell the driver domain that we're done. */
wmb();
clear_bit(_XEN_PCIF_active, (unsigned long *)&pdev->sh_info->flags);
notify_remote_via_irq(pdev->evtchn_irq);
/* Mark that we're done. */
smp_mb__before_clear_bit(); /* /after/ clearing PCIF_active */
clear_bit(_PDEVF_op_active, &pdev->flags);
smp_mb__after_clear_bit(); /* /before/ final check for work */
/* Check to see if the driver domain tried to start another request in
* between clearing _XEN_PCIF_active and clearing _PDEVF_op_active.
*/
test_and_schedule_op(pdev);
}
static void xprt_clear_locked(struct rpc_xprt *xprt)
{
xprt->snd_task = NULL;
if (!test_bit(XPRT_CLOSE_WAIT, &xprt->state) || xprt->shutdown) {
smp_mb__before_clear_bit();
clear_bit(XPRT_LOCKED, &xprt->state);
smp_mb__after_clear_bit();
} else
schedule_work(&xprt->task_cleanup);
}
/*
* Releases the socket for use by other requests.
*/
static void
__xprt_release_write(struct rpc_xprt *xprt, struct rpc_task *task)
{
if (xprt->snd_task == task) {
xprt->snd_task = NULL;
smp_mb__before_clear_bit();
clear_bit(XPRT_LOCKED, &xprt->sockstate);
smp_mb__after_clear_bit();
__xprt_lock_write_next(xprt);
}
}
void clear_bdi_congested(struct backing_dev_info *bdi, int rw)
{
enum bdi_state bit;
wait_queue_head_t *wqh = &congestion_wqh[rw];
bit = (rw == WRITE) ? BDI_write_congested : BDI_read_congested;
clear_bit(bit, &bdi->state);
smp_mb__after_clear_bit();
if (waitqueue_active(wqh))
wake_up(wqh);
}
/**
* nfs_unlock_request - Unlock request and wake up sleepers.
* @req:
*/
void nfs_unlock_request(struct nfs_page *req)
{
if (!NFS_WBACK_BUSY(req)) {
printk(KERN_ERR "NFS: Invalid unlock attempted\n");
BUG();
}
smp_mb__before_clear_bit();
clear_bit(PG_BUSY, &req->wb_flags);
smp_mb__after_clear_bit();
wake_up_bit(&req->wb_flags, PG_BUSY);
}
static void xen_idle(void)
{
local_irq_disable();
if (need_resched())
local_irq_enable();
else {
current_thread_info()->status &= ~TS_POLLING;
smp_mb__after_clear_bit();
safe_halt();
current_thread_info()->status |= TS_POLLING;
}
}
asmlinkage
#endif
void smp_invalidate_interrupt(struct pt_regs *regs)
{
unsigned int cpu;
unsigned int sender;
union smp_flush_state *f;
cpu = smp_processor_id();
#ifdef CONFIG_X86_32
if (current->active_mm)
load_user_cs_desc(cpu, current->active_mm);
#endif
/*
* orig_rax contains the negated interrupt vector.
* Use that to determine where the sender put the data.
*/
sender = ~regs->orig_ax - INVALIDATE_TLB_VECTOR_START;
f = &flush_state[sender];
if (!cpumask_test_cpu(cpu, to_cpumask(f->flush_cpumask)))
goto out;
/*
* This was a BUG() but until someone can quote me the
* line from the intel manual that guarantees an IPI to
* multiple CPUs is retried _only_ on the erroring CPUs
* its staying as a return
*
* BUG();
*/
if (f->flush_mm == percpu_read(cpu_tlbstate.active_mm)) {
if (percpu_read(cpu_tlbstate.state) == TLBSTATE_OK) {
if (f->flush_va == TLB_FLUSH_ALL)
local_flush_tlb();
else
__flush_tlb_one(f->flush_va);
} else
leave_mm(cpu);
}
out:
ack_APIC_irq();
smp_mb__before_clear_bit();
cpumask_clear_cpu(cpu, to_cpumask(f->flush_cpumask));
smp_mb__after_clear_bit();
inc_irq_stat(irq_tlb_count);
}
/**
* lc_put - give up refcnt of @e
* @lc: the lru cache to operate on
* @e: the element to put
*
* If refcnt reaches zero, the element is moved to the lru list,
* and a %LC_STARVING (if set) is cleared.
* Returns the new (post-decrement) refcnt.
*/
unsigned int lc_put(struct lru_cache *lc, struct lc_element *e)
{
PARANOIA_ENTRY();
PARANOIA_LC_ELEMENT(lc, e);
BUG_ON(e->refcnt == 0);
BUG_ON(e == lc->changing_element);
if (--e->refcnt == 0) {
/* move it to the front of LRU. */
list_move(&e->list, &lc->lru);
lc->used--;
clear_bit(__LC_STARVING, &lc->flags);
smp_mb__after_clear_bit();
}
RETURN(e->refcnt);
}
/**
* lc_changed - tell @lc that the change has been recorded
* @lc: the lru cache to operate on
* @e: the element pending label change
*/
void lc_changed(struct lru_cache *lc, struct lc_element *e)
{
PARANOIA_ENTRY();
BUG_ON(e != lc->changing_element);
PARANOIA_LC_ELEMENT(lc, e);
++lc->changed;
e->lc_number = lc->new_number;
list_add(&e->list, &lc->in_use);
hlist_add_head(&e->colision, lc_hash_slot(lc, lc->new_number));
lc->changing_element = NULL;
lc->new_number = LC_FREE;
clear_bit(__LC_DIRTY, &lc->flags);
smp_mb__after_clear_bit();
RETURN();
}
int btrfs_tree_unlock(struct extent_buffer *eb)
{
/*
* if we were a blocking owner, we don't have the spinlock held
* just clear the bit and look for waiters
*/
if (test_and_clear_bit(EXTENT_BUFFER_BLOCKING, &eb->bflags))
smp_mb__after_clear_bit();
else
spin_unlock(&eb->lock);
if (waitqueue_active(&eb->lock_wq))
wake_up(&eb->lock_wq);
return 0;
}
void default_idle(void)
{
if (hlt_works()) {
clear_thread_flag(TIF_POLLING_NRFLAG);
smp_mb__after_clear_bit();
set_bl_bit();
if (!need_resched()) {
local_irq_enable();
cpu_sleep();
} else
local_irq_enable();
set_thread_flag(TIF_POLLING_NRFLAG);
clear_bl_bit();
} else
poll_idle();
}
static void default_idle(void)
{
if (!hlt_counter) {
clear_thread_flag(TIF_POLLING_NRFLAG);
smp_mb__after_clear_bit();
set_bl_bit();
stop_critical_timings();
while (!need_resched())
cpu_sleep();
start_critical_timings();
clear_bl_bit();
set_thread_flag(TIF_POLLING_NRFLAG);
} else
while (!need_resched())
cpu_relax();
}
void default_idle(void)
{
if (likely(hlt_counter)) {
local_irq_disable();
stop_critical_timings();
cpu_relax();
start_critical_timings();
local_irq_enable();
} else {
clear_thread_flag(TIF_POLLING_NRFLAG);
smp_mb__after_clear_bit();
local_irq_disable();
while (!need_resched())
cpu_sleep();
local_irq_enable();
set_thread_flag(TIF_POLLING_NRFLAG);
}
}
void ipipe_critical_exit(unsigned long flags)
{
if (num_online_cpus() == 1) {
hard_local_irq_restore(flags);
return;
}
#ifdef CONFIG_SMP
if (atomic_dec_and_test(&__ipipe_critical_count)) {
spin_unlock(&__ipipe_cpu_barrier);
while (!cpus_empty(__ipipe_cpu_sync_map))
cpu_relax();
cpu_clear(ipipe_processor_id(), __ipipe_cpu_lock_map);
clear_bit(0, &__ipipe_critical_lock);
smp_mb__after_clear_bit();
}
#endif /* CONFIG_SMP */
hard_local_irq_restore(flags);
}
static int dvb_usb_fe_sleep(struct dvb_frontend *fe)
{
int ret;
struct dvb_usb_adapter *adap = fe->dvb->priv;
struct dvb_usb_device *d = adap_to_d(adap);
dev_dbg(&d->udev->dev, "%s: adap=%d fe=%d\n", __func__, adap->id,
fe->id);
if (!adap->suspend_resume_active) {
set_bit(ADAP_SLEEP, &adap->state_bits);
wait_on_bit(&adap->state_bits, ADAP_STREAMING, wait_schedule,
TASK_UNINTERRUPTIBLE);
}
if (adap->fe_sleep[fe->id]) {
ret = adap->fe_sleep[fe->id](fe);
if (ret < 0)
goto err;
}
if (d->props->frontend_ctrl) {
ret = d->props->frontend_ctrl(fe, 0);
if (ret < 0)
goto err;
}
ret = dvb_usbv2_device_power_ctrl(d, 0);
if (ret < 0)
goto err;
err:
if (!adap->suspend_resume_active) {
adap->active_fe = -1;
clear_bit(ADAP_SLEEP, &adap->state_bits);
smp_mb__after_clear_bit();
wake_up_bit(&adap->state_bits, ADAP_SLEEP);
}
dev_dbg(&d->udev->dev, "%s: ret=%d\n", __func__, ret);
return ret;
}
/**
* fscache_obtained_object - Note successful object lookup or creation
* @object: Object pointing to cookie to mark
*
* Note successful lookup and/or creation, permitting those waiting to write
* data to a backing object to continue.
*
* Note that after calling this, an object's cookie may be relinquished by the
* netfs, and so must be accessed with object lock held.
*/
void fscache_obtained_object(struct fscache_object *object)
{
struct fscache_cookie *cookie = object->cookie;
_enter("{OBJ%x,%s}",
object->debug_id, fscache_object_states[object->state]);
/* if we were still looking up, then we must have a positive lookup
* result, in which case there may be data available */
spin_lock(&object->lock);
if (object->state == FSCACHE_OBJECT_LOOKING_UP) {
fscache_stat(&fscache_n_object_lookups_positive);
clear_bit(FSCACHE_COOKIE_NO_DATA_YET, &cookie->flags);
object->state = FSCACHE_OBJECT_AVAILABLE;
spin_unlock(&object->lock);
smp_mb__before_clear_bit();
clear_bit(FSCACHE_COOKIE_LOOKING_UP, &cookie->flags);
smp_mb__after_clear_bit();
wake_up_bit(&cookie->flags, FSCACHE_COOKIE_LOOKING_UP);
set_bit(FSCACHE_OBJECT_EV_REQUEUE, &object->events);
} else {
ASSERTCMP(object->state, ==, FSCACHE_OBJECT_CREATING);
fscache_stat(&fscache_n_object_created);
object->state = FSCACHE_OBJECT_AVAILABLE;
spin_unlock(&object->lock);
set_bit(FSCACHE_OBJECT_EV_REQUEUE, &object->events);
smp_wmb();
}
if (test_and_clear_bit(FSCACHE_COOKIE_CREATING, &cookie->flags))
wake_up_bit(&cookie->flags, FSCACHE_COOKIE_CREATING);
_leave("");
}
static int dvb_usb_fe_init(struct dvb_frontend *fe)
{
int ret;
struct dvb_usb_adapter *adap = fe->dvb->priv;
struct dvb_usb_device *d = adap_to_d(adap);
dev_dbg(&d->udev->dev, "%s: adap=%d fe=%d\n", __func__, adap->id,
fe->id);
if (!adap->suspend_resume_active) {
adap->active_fe = fe->id;
set_bit(ADAP_INIT, &adap->state_bits);
}
ret = dvb_usbv2_device_power_ctrl(d, 1);
if (ret < 0)
goto err;
if (d->props->frontend_ctrl) {
ret = d->props->frontend_ctrl(fe, 1);
if (ret < 0)
goto err;
}
if (adap->fe_init[fe->id]) {
ret = adap->fe_init[fe->id](fe);
if (ret < 0)
goto err;
}
err:
if (!adap->suspend_resume_active) {
clear_bit(ADAP_INIT, &adap->state_bits);
smp_mb__after_clear_bit();
wake_up_bit(&adap->state_bits, ADAP_INIT);
}
dev_dbg(&d->udev->dev, "%s: ret=%d\n", __func__, ret);
return ret;
}