On 11/3/2015 2:34 PM, r...@redhat.com wrote:
Furthermore, for smaller sleep intervals, we know the chance that
all the cores in the package went to the same idle state are fairly
small. Dividing the measured_us by two, instead of subtracting the
full exit latency when hitting a small
On 11/3/2015 2:34 PM, r...@redhat.com wrote:
Furthermore, for smaller sleep intervals, we know the chance that
all the cores in the package went to the same idle state are fairly
small. Dividing the measured_us by two, instead of subtracting the
full exit latency when hitting a small
From: Rik van Riel
The cpuidle state tables contain the maximum exit latency for each
cpuidle state. On x86, that is the exit latency for when the entire
package goes into that same idle state.
However, a lot of the time we only go into the core idle state,
not the package idle state. This
From: Rik van Riel
The cpuidle state tables contain the maximum exit latency for each
cpuidle state. On x86, that is the exit latency for when the entire
package goes into that same idle state.
However, a lot of the time we only go into the core idle state,
not the package idle
From: Rik van Riel
The cpuidle state tables contain the maximum exit latency for each
cpuidle state. On x86, that is the exit latency for when the entire
package goes into that same idle state.
However, a lot of the time we only go into the core idle state,
not the package idle state. This
From: Rik van Riel
The cpuidle state tables contain the maximum exit latency for each
cpuidle state. On x86, that is the exit latency for when the entire
package goes into that same idle state.
However, a lot of the time we only go into the core idle state,
not the package idle
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