#include <linux/kernel.h>
#include <linux/sched.h>
#include <linux/interrupt.h>
-#include <linux/smp_lock.h>
#include <linux/proc_fs.h>
#include <linux/seq_file.h>
#include <linux/init.h>
struct thread_info *info;
info = (struct thread_info *) ((char *) task + IA64_TASK_SIZE);
- set_bit(TIF_NOTIFY_RESUME, &info->flags);
+ set_bit(TIF_PERFMON_WORK, &info->flags);
}
static inline void
pfm_clear_task_notify(void)
{
- clear_thread_flag(TIF_NOTIFY_RESUME);
+ clear_thread_flag(TIF_PERFMON_WORK);
}
static inline void
{
unsigned long flags;
/*
- * validy checks on cpu_mask have been done upstream
+ * validity checks on cpu_mask have been done upstream
*/
LOCK_PFS(flags);
{
unsigned long flags;
/*
- * validy checks on cpu_mask have been done upstream
+ * validity checks on cpu_mask have been done upstream
*/
LOCK_PFS(flags);
return err;
}
-static void __exit
-exit_pfm_fs(void)
-{
- unregister_filesystem(&pfm_fs_type);
- mntput(pfmfs_mnt);
-}
-
static ssize_t
pfm_read(struct file *filp, char __user *buf, size_t size, loff_t *ppos)
{
/*
* remove our file from the async queue, if we use this mode.
* This can be done without the context being protected. We come
- * here when the context has become unreacheable by other tasks.
+ * here when the context has become unreachable by other tasks.
*
* We may still have active monitoring at this point and we may
* end up in pfm_overflow_handler(). However, fasync_helper()
filp->private_data = NULL;
/*
- * if we free on the spot, the context is now completely unreacheable
+ * if we free on the spot, the context is now completely unreachable
* from the callers side. The monitored task side is also cut, so we
* can freely cut.
*
ctx->ctx_all_pmcs[0] = pmu_conf->impl_pmcs[0] & ~0x1;
/*
- * bitmask of all PMDs that are accesible to this context
+ * bitmask of all PMDs that are accessible to this context
*/
ctx->ctx_all_pmds[0] = pmu_conf->impl_pmds[0];
if (unlikely(!PMD_IS_IMPL(cnum))) goto error;
/*
* we can only read the register that we use. That includes
- * the one we explicitely initialize AND the one we want included
+ * the one we explicitly initialize AND the one we want included
* in the sampling buffer (smpl_regs).
*
* Having this restriction allows optimization in the ctxsw routine
* if non-blocking, then we ensure that the task will go into
* pfm_handle_work() before returning to user mode.
*
- * We cannot explicitely reset another task, it MUST always
+ * We cannot explicitly reset another task, it MUST always
* be done by the task itself. This works for system wide because
* the tool that is controlling the session is logically doing
* "self-monitoring".
switch(state) {
case PFM_CTX_UNLOADED:
/*
- * only comes to thios function if pfm_context is not NULL, i.e., cannot
+ * only comes to this function if pfm_context is not NULL, i.e., cannot
* be in unloaded state
*/
printk(KERN_ERR "perfmon: pfm_exit_thread [%d] ctx unloaded\n", task->pid);
/*
* main overflow processing routine.
- * it can be called from the interrupt path or explicitely during the context switch code
+ * it can be called from the interrupt path or explicitly during the context switch code
*/
static void
pfm_overflow_handler(struct task_struct *task, pfm_context_t *ctx, u64 pmc0, struct pt_regs *regs)