Searched refs:runqueue (Results 1 – 13 of 13) sorted by relevance
| /linux-6.6.21/Documentation/scheduler/ |
| D | sched-domains.rst | 36 rebalancing event for the current runqueue has arrived. The actual load
40 The latter function takes two arguments: the runqueue of current CPU and whether
49 If it succeeds, it looks for the busiest runqueue of all the CPUs' runqueues in
50 that group. If it manages to find such a runqueue, it locks both our initial
51 CPU's runqueue and the newly found busiest one and starts moving tasks from it
52 to our runqueue. The exact number of tasks amounts to an imbalance previously
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| D | sched-arch.rst | 10 By default, the switch_to arch function is called with the runqueue
12 take the runqueue lock. This is usually due to a wake up operation in
15 To request the scheduler call switch_to with the runqueue unlocked,
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| D | schedutil.rst | 37 time an entity spends on the runqueue. When there is only a single task these
105 A further runqueue wide sum (of runnable tasks) is maintained of:
116 the runqueue keeps an max aggregate of these clamps for all running tasks.
128 The basis is the CPU runqueue's 'running' metric, which per the above it is
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| D | sched-design-CFS.rst | 63 runqueue. The total amount of work done by the system is tracked using
67 The total number of running tasks in the runqueue is accounted through the
69 runqueue.
112 SMP load-balancing has been reworked/sanitized: the runqueue-walking
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| D | sched-deadline.rst | 182 In addition, if the task wakes up on a different runqueue, then
183 the task's utilization must be removed from the previous runqueue's active
184 utilization and must be added to the new runqueue's active utilization.
185 In order to avoid races between a task waking up on a runqueue while the
187 flag is used to indicate that a task is not on a runqueue but is active
192 its utilization is removed from the runqueue's active utilization.
195 its utilization is added to the active utilization of the runqueue where
198 For each runqueue, the algorithm GRUB keeps track of two different bandwidths:
204 runqueue, including the tasks in Inactive state.
221 - Uinact is the (per runqueue) inactive utilization, computed as
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| D | sched-stats.rst | 12 release). Some counters make more sense to be per-runqueue; other to be
159 2) time spent waiting on a runqueue (in nanoseconds)
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| D | sched-util-clamp.rst | 133 which have implications on the utilization value at CPU runqueue (rq for short)
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| /linux-6.6.21/drivers/gpu/drm/exynos/ |
| D | exynos_drm_g2d.c | 256 struct list_head runqueue; member
815 if (list_empty(&g2d->runqueue)) in g2d_get_runqueue_node()
818 runqueue_node = list_first_entry(&g2d->runqueue, in g2d_get_runqueue_node()
853 if (list_empty(&g2d->runqueue)) in g2d_remove_runqueue_nodes()
856 list_for_each_entry_safe(node, n, &g2d->runqueue, list) { in g2d_remove_runqueue_nodes()
1332 list_add_tail(&runqueue_node->list, &g2d->runqueue); in exynos_g2d_exec_ioctl()
1475 INIT_LIST_HEAD(&g2d->runqueue); in g2d_probe()
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| /linux-6.6.21/Documentation/virt/kvm/ |
| D | halt-polling.rst | 18 interval or some other task on the runqueue is runnable the scheduler is
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| /linux-6.6.21/drivers/staging/wlan-ng/ |
| D | hfa384x_usb.c | 1084 int runqueue = 0; in hfa384x_usbctlx_complete_sync() local
1106 runqueue = 1; in hfa384x_usbctlx_complete_sync()
1127 if (runqueue) in hfa384x_usbctlx_complete_sync()
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| /linux-6.6.21/Documentation/admin-guide/hw-vuln/ |
| D | core-scheduling.rst | 116 have tasks on its on runqueue to run, however it will still have to run idle.
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| /linux-6.6.21/Documentation/admin-guide/cgroup-v1/ |
| D | cpusets.rst | 552 And if a CPU run out of tasks in its runqueue, the CPU try to pull
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| /linux-6.6.21/Documentation/RCU/Design/Requirements/ |
| D | Requirements.rst | 1986 scheduler's runqueue or priority-inheritance spinlocks across an
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