€•/M      Œsphinx.addnodes”Œdocument”“”)”}”(Œ	rawsource”Œ ”Œchildren”]”(Œtranslations”ŒLanguagesNode”“”)”}”(hhh]”(h Œpending_xref”“”)”}”(hhh]”Œdocutils.nodes”ŒText”“”ŒChinese (Simplified)”…””}”Œparent”hsbaŒ
attributes”}”(Œids”]”Œclasses”]”Œnames”]”Œdupnames”]”Œbackrefs”]”Œ	refdomain”Œstd”Œreftype”Œdoc”Œ	reftarget”Œ6/translations/zh_CN/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuŒtagname”hhhubh)”}”(hhh]”hŒChinese (Traditional)”…””}”hh2sbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/zh_TW/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubh)”}”(hhh]”hŒItalian”…””}”hhFsbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/it_IT/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubh)”}”(hhh]”hŒJapanese”…””}”hhZsbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/ja_JP/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubh)”}”(hhh]”hŒKorean”…””}”hhnsbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/ko_KR/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubh)”}”(hhh]”hŒPortuguese (Brazilian)”…””}”hh‚sbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/pt_BR/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubh)”}”(hhh]”hŒSpanish”…””}”hh–sbah}”(h]”h ]”h"]”h$]”h&]”Œ	refdomain”h)Œreftype”h+Œ	reftarget”Œ6/translations/sp_SP/driver-api/thermal/cpu-cooling-api”Œmodname”NŒ	classname”NŒrefexplicit”ˆuh1hhhubeh}”(h]”h ]”h"]”h$]”h&]”Œcurrent_language”ŒEnglish”uh1h
hhŒ	_document”hŒsource”NŒline”NubhŒsection”“”)”}”(hhh]”(hŒtitle”“”)”}”(hŒCPU cooling APIs How To”h]”hŒCPU cooling APIs How To”…””}”(hh¼h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hºhh·h²hh³ŒP/var/lib/git/docbuild/linux/Documentation/driver-api/thermal/cpu-cooling-api.rst”h´KubhŒ	paragraph”“”)”}”(hŒ8Written by Amit Daniel Kachhap <amit.kachhap@linaro.org>”h]”(hŒ Written by Amit Daniel Kachhap <”…””}”(hhÍh²hh³Nh´NubhŒ	reference”“”)”}”(hŒamit.kachhap@linaro.org”h]”hŒamit.kachhap@linaro.org”…””}”(hh×h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”Œrefuri”Œmailto:amit.kachhap@linaro.org”uh1hÕhhÍubhŒ>”…””}”(hhÍh²hh³Nh´Nubeh}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´Khh·h²hubhÌ)”}”(hŒUpdated: 6 Jan 2015”h]”hŒUpdated: 6 Jan 2015”…””}”(hhñh²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´Khh·h²hubhÌ)”}”(hŒHCopyright (c)  2012 Samsung Electronics Co., Ltd(http://www.samsung.com)”h]”(hŒ1Copyright (c)  2012 Samsung Electronics Co., Ltd(”…””}”(hhÿh²hh³Nh´NubhÖ)”}”(hŒhttp://www.samsung.com”h]”hŒhttp://www.samsung.com”…””}”(hj  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”Œrefuri”j	  uh1hÕhhÿubhŒ)”…””}”(hhÿh²hh³Nh´Nubeh}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K	hh·h²hubh¶)”}”(hhh]”(h»)”}”(hŒ0. Introduction”h]”hŒ0. Introduction”…””}”(hj#  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hºhj   h²hh³hÊh´KubhÌ)”}”(hŒäThe generic cpu cooling(freq clipping) provides registration/unregistration APIs
to the caller. The binding of the cooling devices to the trip point is left for
the user. The registration APIs returns the cooling device pointer.”h]”hŒäThe generic cpu cooling(freq clipping) provides registration/unregistration APIs
to the caller. The binding of the cooling devices to the trip point is left for
the user. The registration APIs returns the cooling device pointer.”…””}”(hj1  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´Khj   h²hubeh}”(h]”Œintroduction”ah ]”h"]”Œ0. introduction”ah$]”h&]”uh1hµhh·h²hh³hÊh´Kubh¶)”}”(hhh]”(h»)”}”(hŒ1. cpu cooling APIs”h]”hŒ1. cpu cooling APIs”…””}”(hjJ  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hºhjG  h²hh³hÊh´Kubh¶)”}”(hhh]”(h»)”}”(hŒ,1.1 cpufreq registration/unregistration APIs”h]”hŒ,1.1 cpufreq registration/unregistration APIs”…””}”(hj[  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hºhjX  h²hh³hÊh´KubhŒblock_quote”“”)”}”(hX¹   ::

     struct thermal_cooling_device
     *cpufreq_cooling_register(struct cpumask *clip_cpus)

 This interface function registers the cpufreq cooling device with the name
 "thermal-cpufreq-%x". This api can support multiple instances of cpufreq
 cooling devices.

clip_cpus:
     cpumask of cpus where the frequency constraints will happen.

 ::

     struct thermal_cooling_device
     *of_cpufreq_cooling_register(struct cpufreq_policy *policy)

 This interface function registers the cpufreq cooling device with
 the name "thermal-cpufreq-%x" linking it with a device tree node, in
 order to bind it via the thermal DT code. This api can support multiple
 instances of cpufreq cooling devices.

 policy:
     CPUFreq policy.


 ::

     void cpufreq_cooling_unregister(struct thermal_cooling_device *cdev)

 This interface function unregisters the "thermal-cpufreq-%x" cooling device.

 cdev: Cooling device pointer which has to be unregistered.
”h]”(jj  )”}”(hX  ::

    struct thermal_cooling_device
    *cpufreq_cooling_register(struct cpumask *clip_cpus)

This interface function registers the cpufreq cooling device with the name
"thermal-cpufreq-%x". This api can support multiple instances of cpufreq
cooling devices.
”h]”(hŒliteral_block”“”)”}”(hŒRstruct thermal_cooling_device
*cpufreq_cooling_register(struct cpumask *clip_cpus)”h]”hŒRstruct thermal_cooling_device
*cpufreq_cooling_register(struct cpumask *clip_cpus)”…””}”hju  sbah}”(h]”h ]”h"]”h$]”h&]”Œ	xml:space”Œpreserve”uh1js  h³hÊh´Khjo  ubhÌ)”}”(hŒ¤This interface function registers the cpufreq cooling device with the name
"thermal-cpufreq-%x". This api can support multiple instances of cpufreq
cooling devices.”h]”hŒ¨This interface function registers the cpufreq cooling device with the name
â€œthermal-cpufreq-%xâ€. This api can support multiple instances of cpufreq
cooling devices.”…””}”(hj…  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´Khjo  ubeh}”(h]”h ]”h"]”h$]”h&]”uh1ji  h³hÊh´Khjk  ubhŒdefinition_list”“”)”}”(hhh]”hŒdefinition_list_item”“”)”}”(hXŸ  clip_cpus:
    cpumask of cpus where the frequency constraints will happen.

::

    struct thermal_cooling_device
    *of_cpufreq_cooling_register(struct cpufreq_policy *policy)

This interface function registers the cpufreq cooling device with
the name "thermal-cpufreq-%x" linking it with a device tree node, in
order to bind it via the thermal DT code. This api can support multiple
instances of cpufreq cooling devices.

policy:
    CPUFreq policy.


::

    void cpufreq_cooling_unregister(struct thermal_cooling_device *cdev)

This interface function unregisters the "thermal-cpufreq-%x" cooling device.

cdev: Cooling device pointer which has to be unregistered.
”h]”(hŒterm”“”)”}”(hŒ
clip_cpus:”h]”hŒ
clip_cpus:”…””}”(hj¦  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1j¤  h³hÊh´K8hj   ubhŒ
definition”“”)”}”(hhh]”(jj  )”}”(hŒ=cpumask of cpus where the frequency constraints will happen.
”h]”hÌ)”}”(hŒ<cpumask of cpus where the frequency constraints will happen.”h]”hŒ<cpumask of cpus where the frequency constraints will happen.”…””}”(hj½  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K"hj¹  ubah}”(h]”h ]”h"]”h$]”h&]”uh1ji  h³hÊh´K"hj¶  ubjt  )”}”(hŒYstruct thermal_cooling_device
*of_cpufreq_cooling_register(struct cpufreq_policy *policy)”h]”hŒYstruct thermal_cooling_device
*of_cpufreq_cooling_register(struct cpufreq_policy *policy)”…””}”hjÑ  sbah}”(h]”h ]”h"]”h$]”h&]”jƒ  j„  uh1js  h³hÊh´K&hj¶  ubhÌ)”}”(hŒôThis interface function registers the cpufreq cooling device with
the name "thermal-cpufreq-%x" linking it with a device tree node, in
order to bind it via the thermal DT code. This api can support multiple
instances of cpufreq cooling devices.”h]”hŒøThis interface function registers the cpufreq cooling device with
the name â€œthermal-cpufreq-%xâ€ linking it with a device tree node, in
order to bind it via the thermal DT code. This api can support multiple
instances of cpufreq cooling devices.”…””}”(hjß  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K)hj¶  ubjš  )”}”(hhh]”jŸ  )”}”(hŒpolicy:
CPUFreq policy.

”h]”(j¥  )”}”(hŒpolicy:”h]”hŒpolicy:”…””}”(hjô  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1j¤  h³hÊh´K0hjð  ubjµ  )”}”(hhh]”hÌ)”}”(hŒCPUFreq policy.”h]”hŒCPUFreq policy.”…””}”(hj  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K/hj  ubah}”(h]”h ]”h"]”h$]”h&]”uh1j´  hjð  ubeh}”(h]”h ]”h"]”h$]”h&]”uh1jž  h³hÊh´K0hjí  ubah}”(h]”h ]”h"]”h$]”h&]”uh1j™  hj¶  ubjt  )”}”(hŒDvoid cpufreq_cooling_unregister(struct thermal_cooling_device *cdev)”h]”hŒDvoid cpufreq_cooling_unregister(struct thermal_cooling_device *cdev)”…””}”hj%  sbah}”(h]”h ]”h"]”h$]”h&]”jƒ  j„  uh1js  h³hÊh´K4hj¶  ubhÌ)”}”(hŒLThis interface function unregisters the "thermal-cpufreq-%x" cooling device.”h]”hŒPThis interface function unregisters the â€œthermal-cpufreq-%xâ€ cooling device.”…””}”(hj3  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K6hj¶  ubhÌ)”}”(hŒ:cdev: Cooling device pointer which has to be unregistered.”h]”hŒ:cdev: Cooling device pointer which has to be unregistered.”…””}”(hjA  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K8hj¶  ubeh}”(h]”h ]”h"]”h$]”h&]”uh1j´  hj   ubeh}”(h]”h ]”h"]”h$]”h&]”uh1jž  h³hÊh´K8hj›  ubah}”(h]”h ]”h"]”h$]”h&]”uh1j™  hjk  ubeh}”(h]”h ]”h"]”h$]”h&]”uh1ji  h³hÊh´KhjX  h²hubeh}”(h]”Œ(cpufreq-registration-unregistration-apis”ah ]”h"]”Œ,1.1 cpufreq registration/unregistration apis”ah$]”h&]”uh1hµhjG  h²hh³hÊh´Kubeh}”(h]”Œcpu-cooling-apis”ah ]”h"]”Œ1. cpu cooling apis”ah$]”h&]”uh1hµhh·h²hh³hÊh´Kubh¶)”}”(hhh]”(h»)”}”(hŒ2. Power models”h]”hŒ2. Power models”…””}”(hjz  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hºhjw  h²hh³hÊh´K;ubhÌ)”}”(hXÜ  The power API registration functions provide a simple power model for
CPUs.  The current power is calculated as dynamic power (static power isn't
supported currently).  This power model requires that the operating-points of
the CPUs are registered using the kernel's opp library and the
`cpufreq_frequency_table` is assigned to the `struct device` of the
cpu.  If you are using CONFIG_CPUFREQ_DT then the
`cpufreq_frequency_table` should already be assigned to the cpu
device.”h]”(hX#  The power API registration functions provide a simple power model for
CPUs.  The current power is calculated as dynamic power (static power isnâ€™t
supported currently).  This power model requires that the operating-points of
the CPUs are registered using the kernelâ€™s opp library and the
”…””}”(hjˆ  h²hh³Nh´NubhŒtitle_reference”“”)”}”(hŒ`cpufreq_frequency_table`”h]”hŒcpufreq_frequency_table”…””}”(hj’  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1j  hjˆ  ubhŒ is assigned to the ”…””}”(hjˆ  h²hh³Nh´Nubj‘  )”}”(hŒ`struct device`”h]”hŒstruct device”…””}”(hj¤  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1j  hjˆ  ubhŒ: of the
cpu.  If you are using CONFIG_CPUFREQ_DT then the
”…””}”(hjˆ  h²hh³Nh´Nubj‘  )”}”(hŒ`cpufreq_frequency_table`”h]”hŒcpufreq_frequency_table”…””}”(hj¶  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1j  hjˆ  ubhŒ. should already be assigned to the cpu
device.”…””}”(hjˆ  h²hh³Nh´Nubeh}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K=hjw  h²hubhÌ)”}”(hŒƒThe dynamic power consumption of a processor depends on many factors.
For a given processor implementation the primary factors are:”h]”hŒƒThe dynamic power consumption of a processor depends on many factors.
For a given processor implementation the primary factors are:”…””}”(hjÎ  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KFhjw  h²hubhŒbullet_list”“”)”}”(hhh]”(hŒ	list_item”“”)”}”(hŒºThe time the processor spends running, consuming dynamic power, as
compared to the time in idle states where dynamic consumption is
negligible.  Herein we refer to this as 'utilisation'.”h]”hÌ)”}”(hŒºThe time the processor spends running, consuming dynamic power, as
compared to the time in idle states where dynamic consumption is
negligible.  Herein we refer to this as 'utilisation'.”h]”hŒ¾The time the processor spends running, consuming dynamic power, as
compared to the time in idle states where dynamic consumption is
negligible.  Herein we refer to this as â€˜utilisationâ€™.”…””}”(hjç  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KIhjã  ubah}”(h]”h ]”h"]”h$]”h&]”uh1já  hjÞ  h²hh³hÊh´Nubjâ  )”}”(hŒwThe voltage and frequency levels as a result of DVFS.  The DVFS
level is a dominant factor governing power consumption.”h]”hÌ)”}”(hŒwThe voltage and frequency levels as a result of DVFS.  The DVFS
level is a dominant factor governing power consumption.”h]”hŒwThe voltage and frequency levels as a result of DVFS.  The DVFS
level is a dominant factor governing power consumption.”…””}”(hjÿ  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KLhjû  ubah}”(h]”h ]”h"]”h$]”h&]”uh1já  hjÞ  h²hh³hÊh´Nubjâ  )”}”(hX  In running time the 'execution' behaviour (instruction types, memory
access patterns and so forth) causes, in most cases, a second order
variation.  In pathological cases this variation can be significant,
but typically it is of a much lesser impact than the factors above.
”h]”hÌ)”}”(hX  In running time the 'execution' behaviour (instruction types, memory
access patterns and so forth) causes, in most cases, a second order
variation.  In pathological cases this variation can be significant,
but typically it is of a much lesser impact than the factors above.”h]”hX  In running time the â€˜executionâ€™ behaviour (instruction types, memory
access patterns and so forth) causes, in most cases, a second order
variation.  In pathological cases this variation can be significant,
but typically it is of a much lesser impact than the factors above.”…””}”(hj  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KNhj  ubah}”(h]”h ]”h"]”h$]”h&]”uh1já  hjÞ  h²hh³hÊh´Nubeh}”(h]”h ]”h"]”h$]”h&]”Œbullet”Œ-”uh1jÜ  h³hÊh´KIhjw  h²hubhÌ)”}”(hŒIA high level dynamic power consumption model may then be represented as::”h]”hŒHA high level dynamic power consumption model may then be represented as:”…””}”(hj3  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KShjw  h²hubjt  )”}”(hŒ3Pdyn = f(run) * Voltage^2 * Frequency * Utilisation”h]”hŒ3Pdyn = f(run) * Voltage^2 * Frequency * Utilisation”…””}”hjA  sbah}”(h]”h ]”h"]”h$]”h&]”jƒ  j„  uh1js  h³hÊh´KUhjw  h²hubhÌ)”}”(hŒf(run) here represents the described execution behaviour and its
result has a units of Watts/Hz/Volt^2 (this often expressed in
mW/MHz/uVolt^2)”h]”hŒf(run) here represents the described execution behaviour and its
result has a units of Watts/Hz/Volt^2 (this often expressed in
mW/MHz/uVolt^2)”…””}”(hjO  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´KWhjw  h²hubhÌ)”}”(hX“  The detailed behaviour for f(run) could be modelled on-line.  However,
in practice, such an on-line model has dependencies on a number of
implementation specific processor support and characterisation
factors.  Therefore, in initial implementation that contribution is
represented as a constant coefficient.  This is a simplification
consistent with the relative contribution to overall power variation.”h]”hX“  The detailed behaviour for f(run) could be modelled on-line.  However,
in practice, such an on-line model has dependencies on a number of
implementation specific processor support and characterisation
factors.  Therefore, in initial implementation that contribution is
represented as a constant coefficient.  This is a simplification
consistent with the relative contribution to overall power variation.”…””}”(hj]  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´K[hjw  h²hubhÌ)”}”(hŒ5In this simplified representation our model becomes::”h]”hŒ4In this simplified representation our model becomes:”…””}”(hjk  h²hh³Nh´Nubah}”(h]”h ]”h"]”h$]”h&]”uh1hËh³hÊh´Kbhjw  h²hubjt  )”}”(hŒ8Pdyn = Capacitance * Voltage^2 * Frequency * Utilisation”h]”hŒ8Pdyn = Capacitance * Voltage^2 * Frequency * Utilisation”…””}”hjy  sbah}”(h]”h ]”h"]”h$]”h&]”jƒ  j„  uh1js  h³hÊh´Kdhjw  h²hubhÌ)”}”(hXo  Where `capacitance` is a constant that represents an indicative
running time dynamic power coefficient in fundamental units of
mW/MHz/uVolt^2.  Typical values for mobile CPUs might lie in range
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ARM's Juno Development Platform are 530 for the Cortex-A57 cluster and
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mW/MHz/uVolt^2.  Typical values for mobile CPUs might lie in range
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ARMâ€™s Juno Development Platform are 530 for the Cortex-A57 cluster and
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