mirror of
https://github.com/xcat2/xcat-core.git
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the code drop of energy management support for blade
git-svn-id: https://svn.code.sf.net/p/xcat/code/xcat-core/trunk@5825 8638fb3e-16cb-4fca-ae20-7b5d299a9bcd
This commit is contained in:
daniceexi
@@ -185,7 +185,13 @@ my %usage = (
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Power 7 server specific :
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renergy noderange [-V] { all | { [savingstatus] [dsavingstatus] [cappingstatus] [cappingmaxmin] [cappingvalue] [cappingsoftmin] [averageAC] [averageDC] [ambienttemp] [exhausttemp] [CPUspeed] [syssbpower] [sysIPLtime] } }
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renergy noderange [-V] { {savingstatus}={on | off} | {dsavingstatus}={on-norm | on-maxp | off} | {cappingstatus}={on | off} | {cappingwatt}=watt | {cappingperc}=percentage }",
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renergy noderange [-V] { {savingstatus}={on | off} | {dsavingstatus}={on-norm | on-maxp | off} | {cappingstatus}={on | off} | {cappingwatt}=watt | {cappingperc}=percentage }
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Blade specific :
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renergy noderange [-V] { all | pd1all | pd2all | { [pd1status] [pd2status] [pd1policy] [pd2policy] [pd1powermodule1] [pd1powermodule2] [pd2powermodule1] [pd2powermodule2] [pd1avaiablepower] [pd2avaiablepower] [pd1reservedpower] [pd2reservedpower] [pd1remainpower] [pd2remainpower] [pd1inusedpower] [pd2inusedpower] [availableDC] [averageAC] [thermaloutput] [ambienttemp] [mmtemp] } }
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renergy noderange [-V] { all | { [averageAC] [cappingmaxmin] [capability] [cappingvalue] [CPUspeed] [maxCPUspeed] } }
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renergy noderange [-V] { cappingwatt}=watt }",
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"updatenode" =>
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"Usage:
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@@ -12,27 +12,64 @@ B<renergy> [-v | --version]
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B<Power 6 server specific :>
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B<renergy> noderange [-V] { all | { [savingstatus] [cappingstatus]
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[cappingmaxmin] [cappingvalue] [cappingsoftmin] [averageAC]
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[averageDC] [ambienttemp] [exhausttemp] [CPUspeed] } }
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=over 2
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B<renergy> noderange [-V] { {savingstatus}={on | off}
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| {cappingstatus}={on | off} | {cappingwatt}=watt
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| {cappingperc}=percentage }
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B<renergy> I<noderange> [-V] { all | { [savingstatus] [cappingstatus]
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[cappingmaxmin] [cappingvalue] [cappingsoftmin] [averageAC]
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[averageDC] [ambienttemp] [exhausttemp] [CPUspeed] } }
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B<renergy> I<noderange> [-V] { {savingstatus}={on | off}
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| {cappingstatus}={on | off} | {cappingwatt}=watt
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| {cappingperc}=percentage }
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=back
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B<Power 7 server specific :>
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B<renergy> noderange [-V] { all | { [savingstatus] [dsavingstatus]
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[cappingstatus] [cappingmaxmin] [cappingvalue] [cappingsoftmin]
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[averageAC] [averageDC] [ambienttemp] [exhausttemp] [CPUspeed]
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[syssbpower] [sysIPLtime] } }
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=over 2
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B<renergy> noderange [-V] { {savingstatus}={on | off}
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| {dsavingstatus}={on-norm | on-maxp | off}
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| {cappingstatus}={on | off} | {cappingwatt}=watt
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| {cappingperc}=percentage }
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B<renergy> I<noderange> [-V] { all | { [savingstatus] [dsavingstatus]
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[cappingstatus] [cappingmaxmin] [cappingvalue] [cappingsoftmin]
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[averageAC] [averageDC] [ambienttemp] [exhausttemp] [CPUspeed]
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[syssbpower] [sysIPLtime] } }
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B<renergy> I<noderange> [-V] { {savingstatus}={on | off}
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| {dsavingstatus}={on-norm | on-maxp | off}
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| {cappingstatus}={on | off} | {cappingwatt}=watt
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| {cappingperc}=percentage }
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=back
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B<Blade specific :>
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=over 2
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B<For node of blade management module:>
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=over 4
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B<renergy> I<noderange> [-V] { all | pd1all | pd2all | { [pd1status]
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[pd2status] [pd1policy] [pd2policy] [pd1powermodule1]
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[pd1powermodule2] [pd2powermodule1] [pd2powermodule2]
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[pd1avaiablepower] [pd2avaiablepower] [pd1reservedpower]
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[pd2reservedpower] [pd1remainpower] [pd2remainpower]
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[pd1inusedpower] [pd2inusedpower] [availableDC] [averageAC]
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[thermaloutput] [ambienttemp] [mmtemp] } }
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=back
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B<For node of blade server:>
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=over 4
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B<renergy> I<noderange> [-V] { all | { [averageAC] [cappingmaxmin]
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[capability] [cappingvalue] [CPUspeed] [maxCPUspeed] } }
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B<renergy> I<noderange> [-V] { cappingwatt}=watt }
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=back
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=back
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=head1 B<DESCRIPTION>
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@@ -42,18 +79,20 @@ user can query and set the power saving and power capping status, also can
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query the average consumed energy, the ambient and exhaust temperature,
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the processor frequency for a server.
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B<renergy> command supports IBM POWER6 and POWER7 rack-mounted servers.
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Currently, following specific hardware types are supported:
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B<renergy> command supports IBM POWER6 and POWER7 rack-mounted servers
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(system P CEC node), blade management module node, blade server node.
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For rack-mounted servers, following specific hardware types are supported:
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I<8203-E4A>, I<8204-E8A>, I<9125-F2A>, I<8233-E8B>, I<8236-E8C>.
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The parameter I<noderange> needs to be specified for B<renergy> command to
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get the target server. The I<noderange> should be a list of CEC names. Lpar name
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get the target server. The I<noderange> should be a list of CEC node names, blade
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management module node names or blade server node names. Lpar name
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is not acceptable here.
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B<renergy> command can accept multiple of energy attributes to query or one of energy
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attribute to set. If only the attribute name is specified, without the '=', B<renergy>
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gets and displays the current value. Otherwise, if specifying the attribute with '=' like
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'savingstatus=on', B<renergy> will turn on the static power saving.
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'savingstatus=on', B<renergy> will set the attribute savingstatus to value 'on'.
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The attributes listed in the B<SYNOPSIS> section are which ones can be handled by
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B<renergy> command. But for each specific type of server, there are some attributes
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@@ -62,139 +101,316 @@ server, the return value of this attribute will be 'na'.
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The supported attributes for each specific hardware types are listed at following:
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8203-E4A, 8204-E8A
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Supported attributes:
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B<Query>: savingstatus,cappingstatus,cappingmin,cappingmax,cappingvalue,
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cappingsoftmin,averageAC,averageDC,ambienttemp,exhausttemp,CPUspeed
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B<Set>: savingstatus,cappingstatus,cappingwatt,cappingperc
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=over 2
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9125-F2A
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Supported attributes:
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B<Query>: savingstatus,averageAC,ambienttemp,exhausttemp,CPUspeed
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B<Set>: savingstatus
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B<8203-E4A>, B<8204-E8A>
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8233-E8B, 8236-E8C
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Supported attributes:
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B<Query>: savingstatus,dsavingstatus,cappingstatus,cappingmin,cappingmax,
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cappingvalue,cappingsoftmin,averageAC,averageDC,ambienttemp,exhausttemp,
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CPUspeed,syssbpower,sysIPLtime
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B<Set>: savingstatus,dsavingstatus,cappingstatus,cappingwatt,cappingperc
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=over 4
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Supported attributes:
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B<Query>: savingstatus,cappingstatus,cappingmin,cappingmax,
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cappingvalue,cappingsoftmin,averageAC,averageDC,ambienttemp,
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exhausttemp,CPUspeed
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B<Set>: savingstatus,cappingstatus,cappingwatt,cappingperc
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=back
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B<9125-F2A>
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=over 4
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Supported attributes:
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B<Query>: savingstatus,averageAC,ambienttemp,exhausttemp,
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CPUspeed
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B<Set>: savingstatus
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=back
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B<8233-E8B>, B<8236-E8C>
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=over 4
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Supported attributes:
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B<Query>: savingstatus,dsavingstatus,cappingstatus,cappingmin,
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cappingmax,cappingvalue,cappingsoftmin,averageAC,averageDC,
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ambienttemp,exhausttemp,CPUspeed,syssbpower,sysIPLtime
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B<Set>: savingstatus,dsavingstatus,cappingstatus,cappingwatt,
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cappingperc
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=back
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=back
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Note:
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Each query operation for attribute CPUspeed, averageAC or averageDC
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needs about 30 seconds to complete. The query for others attributes
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For system P CEC nodes, each query operation for attribute CPUspeed, averageAC
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or averageDC needs about 30 seconds to complete. The query for others attributes
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will get response immediately.
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=head1 B<PREREQUISITE>
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B<renergy> command depends on a CIM client tool B<xCAT-cimclient> to
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communicate with server. Then, before running the B<renergy> command, please
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For the system P CEC nodes, B<renergy> command depends
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on a CIM client tool B<xCAT-cimclient> to
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communicate with server. Then, before running the B<renergy> command, to
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check whether the B<xCAT-cimclient> package has been installed.
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B<xCAT-cimclient> can be downloaded from IBM web site.
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=head1 B<OPTIONS>
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-h | --help
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Display the usage message.
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=over 4
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-v | --version
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Display the version information.
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=item B<-h | --help>
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Display the usage message.
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-V
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Verbose output.
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=item B<-v | --version>
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Display the version information.
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=item B<-V>
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Verbose output.
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B<all>
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Query all energy attributes which supported by the specific
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type of hardware.
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=item B<all>
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savingstatus
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Query the static power saving status. The result should be
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'on' or 'off'. 'on' - enable; 'off' - disable.
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Query all energy attributes which supported by the specific
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type of hardware.
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savingstatus={on | off}
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Set the static power saving. The value must be 'on' or 'off'.
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If turning on the static power saving, the processor frequency
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and voltage will be dropped to a fixed value to save energy.
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The savingstatus setting operation needs about 2 minutes to
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take effect. (The used time depends on the hardware type)
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=item B<pd1all>
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dsavingstatus
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Query the dynamic power saving status. The result should
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be 'on-norm', 'on-maxp' or 'off'.
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If turning on the dynamic power saving, the processor
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frequency and voltage will be dropped dynamically based on
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the core utilization. It supports two modes for turn on state:
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I<on-norm> - means normal, the processor frequency cannot
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exceed the nominal value;
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I<on-maxp> - means maximum performance, the processor
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frequency can exceed the nominal value.
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Query all energy attributes of the power domain 1 for blade
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management module node.
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dsavingstatus={on-norm | on-maxp | off}
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Set the dynamic power saving. The value must be 'on-norm',
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'on-maxp' or 'off'.
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The dsavingstatus setting operation needs about 2 minutes
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to take effect. (The used time depends on the hardware type)
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=item B<pd2all>
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cappingstatus
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Query the power capping status. The result should be 'on'
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or 'off'.
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Query all energy attributes of the power domain 2 for blade
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management module node.
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cappingstatus={on | off}
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Set the power capping status. The value must be 'on'
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or 'off'. This is the switch to turn on or turn off the
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power capping function.
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=item B<ambienttemp>
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cappingwatt=watt
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Set the power capping value base on the watt unit.
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If the 'watt' > maximum of I<cappingmaxmin> or 'watt'
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< minimum of I<cappingmaxmim>, the setting operation
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will be failed.
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Query the current ambient temperature. (Unit is centigrade)
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cappingperc=percentage
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Set the power capping value base on the percentage of
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the max-min of capping value which getting from
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I<cappingmaxmim> attribute. The valid value must be
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from 0 to 100.
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=item B<availableDC>
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cappingmaxmin
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Query the maximum and minimum of power capping value
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which can be set for a CEC. (Unit is watt)
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Query the total DC power available for the entire chassis.
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=item B<averageAC>
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cappingvalue
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Query the current power capping value. (Unit is watt)
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Query the average power consumed (Input). (Unit is watt)
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cappingsoftmin
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Query the minimum value that can be assigned to power
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capping without guaranteed enforceability. (Unit is watt)
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Note: For 9125-F2A server, the value of attribute
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averageAC is the aggregate for all of the servers in a rack.
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averageAC
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Query the average power consumed (Input). (Unit is watt)
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Note: For 9125-F2A server, the value of attribute
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averageAC is the aggregate for all of the servers in a rack.
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=item B<averageDC>
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averageDC
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Query the average power consumed (Output). (Unit is
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watt)
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Query the average power consumed (Output). (Unit is watt)
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ambienttemp
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Query the current ambient temperature. (Unit is centigrade)
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=item B<capability>
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exhausttemp
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Query the current exhaust temperature. (Unit is centigrade)
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Query the Power Capabilities of the blade server.
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CPUspeed
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Query the effective processor frequency. (Unit is MHz)
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staticPowerManagement: the module with the static worst case power values.
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syssbpower
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Query the system power consumed prior to power on.
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(Unit is MHz)
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fixedPowermanagement: the module with the static power values but ability
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to throttle.
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sysIPLtime
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Query the time used from FSP standby to OS standby.
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(Unit is Second)
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dynamicPowerManagement: the module with power meter capability, measurement
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enabled, but capping disabled.
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dynamicPowerMeasurement1: the module with power meter capability, measurement
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enabled, phase 1 only
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dynamicPowerMeasurement2: the module with power meter capability, measurement
|
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enabled, phase 2 or higher
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dynamicPowerMeasurementWithPowerCapping: the module with power meter capability,
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both measurement and capping enabled, phase 2 or higher"
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=item B<cappingmaxmin>
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Query the maximum and minimum of power capping value
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which can be set for a CEC or blade server. (Unit is watt)
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=item B<cappingperc>=B<percentage>
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Set the power capping value base on the percentage of
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the max-min of capping value which getting from
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I<cappingmaxmim> attribute. The valid value must be
|
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from 0 to 100.
|
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|
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=item B<cappingsoftmin>
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|
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Query the minimum value that can be assigned to power
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capping without guaranteed enforceability. (Unit is watt)
|
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|
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=item B<cappingstatus>
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Query the power capping status. The result should be 'on'
|
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or 'off'.
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|
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=item B<cappingstatus>={B<on> | B<off>}
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|
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Set the power capping status. The value must be 'on'
|
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or 'off'. This is the switch to turn on or turn off the
|
||||
power capping function.
|
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|
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=item B<cappingvalue>
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Query the current power capping value. (Unit is watt)
|
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=item B<cappingwatt>=B<watt>
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Set the power capping value base on the watt unit.
|
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|
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If the 'watt' > maximum of I<cappingmaxmin> or 'watt'
|
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< minimum of I<cappingmaxmim>, the setting operation
|
||||
will be failed.
|
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|
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=item B<CPUspeed>
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|
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Query the effective processor frequency. (Unit is MHz)
|
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|
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=item B<dsavingstatus>
|
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|
||||
Query the dynamic power saving status. The result should
|
||||
be 'on-norm', 'on-maxp' or 'off'.
|
||||
|
||||
If turning on the dynamic power saving, the processor
|
||||
frequency and voltage will be dropped dynamically based on
|
||||
the core utilization. It supports two modes for turn on state:
|
||||
|
||||
I<on-norm> - means normal, the processor frequency cannot
|
||||
exceed the nominal value;
|
||||
|
||||
I<on-maxp> - means maximum performance, the processor
|
||||
frequency can exceed the nominal value.
|
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|
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=item B<dsavingstatus>={B<on-norm> | B<on-maxp> | B<off>}
|
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|
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Set the dynamic power saving. The value must be 'on-norm',
|
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'on-maxp' or 'off'.
|
||||
|
||||
The dsavingstatus setting operation needs about 2 minutes
|
||||
to take effect. (The used time depends on the hardware type)
|
||||
|
||||
=item B<exhausttemp>
|
||||
|
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Query the current exhaust temperature. (Unit is centigrade)
|
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=item B<maxCPUspeed>
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Query the maximum processor frequency. (Unit is MHz)
|
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|
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=item B<mmtemp>
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|
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Query the current temperature of management module.
|
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(Unit is centigrade)
|
||||
|
||||
=item B<pd1status>
|
||||
|
||||
Query the status of power domain 1 for blade management
|
||||
module node.
|
||||
|
||||
=item B<pd1policy>
|
||||
|
||||
Query the power management policy of power domain 1.
|
||||
|
||||
=item B<pd1powermodule1>
|
||||
|
||||
Query the First Power Module capacity in power domain 1.
|
||||
|
||||
=item B<pd1powermodule2>
|
||||
|
||||
Query the Second Power Module capacity in power domain 1.
|
||||
|
||||
=item B<pd1avaiablepower>
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||||
|
||||
Query the total available power in power domain 1.
|
||||
|
||||
=item B<pd1reservedpower>
|
||||
|
||||
Query the power that has been reserved for power domain 1.
|
||||
|
||||
=item B<pd1remainpower>
|
||||
|
||||
Query the remaining power available in power domain 1.
|
||||
|
||||
=item B<pd1inusedpower>
|
||||
|
||||
Query the total power being used in power domain 1.
|
||||
|
||||
=item B<pd2status>
|
||||
|
||||
Query the status of power domain 2 for blade management
|
||||
module node.
|
||||
|
||||
=item B<pd2policy>
|
||||
|
||||
Query the power management policy of power domain 2.
|
||||
|
||||
=item B<pd2powermodule1>
|
||||
|
||||
Query the First Power Module capacity in power domain 2.
|
||||
|
||||
=item B<pd2powermodule2>
|
||||
|
||||
Query the Second Power Module capacity in power domain 2.
|
||||
|
||||
=item B<pd2avaiablepower>
|
||||
|
||||
Query the total available power in power domain 2.
|
||||
|
||||
=item B<pd2reservedpower>
|
||||
|
||||
Query the power that has been reserved for power domain 2.
|
||||
|
||||
=item B<pd2remainpower>
|
||||
|
||||
Query the remaining power available in power domain 2.
|
||||
|
||||
=item B<pd2inusedpower>
|
||||
|
||||
Query the total power being used in power domain 2.
|
||||
|
||||
=item B<savingstatus>
|
||||
|
||||
Query the static power saving status. The result should be
|
||||
'on' or 'off'. 'on' - enable; 'off' - disable.
|
||||
|
||||
=item B<savingstatus>={B<on> | B<off>}
|
||||
|
||||
Set the static power saving. The value must be 'on' or 'off'.
|
||||
|
||||
If turning on the static power saving, the processor frequency
|
||||
and voltage will be dropped to a fixed value to save energy.
|
||||
|
||||
The savingstatus setting operation needs about 2 minutes to
|
||||
take effect. (The used time depends on the hardware type)
|
||||
|
||||
=item B<sysIPLtime>
|
||||
|
||||
Query the time used from FSP standby to OS standby.
|
||||
(Unit is Second)
|
||||
|
||||
=item B<syssbpower>
|
||||
|
||||
Query the system power consumed prior to power on.
|
||||
(Unit is MHz)
|
||||
|
||||
=item B<thermaloutput>
|
||||
|
||||
Query the thermal output (load) in BTUs per hour for the chassis.
|
||||
|
||||
=back
|
||||
|
||||
|
||||
=head1 B<RETURN VALUE>
|
||||
@@ -206,64 +422,124 @@ sysIPLtime
|
||||
|
||||
=head1 B<EXAMPLES>
|
||||
|
||||
1. Query all the attributes which CEC1,CEC2 supported.
|
||||
B<renergy> CEC1,CEC2 all
|
||||
=over 3
|
||||
|
||||
The output of the query operation:
|
||||
CEC1: savingstatus: off
|
||||
CEC1: dsavingstatus: off
|
||||
CEC1: cappingstatus: off
|
||||
CEC1: cappingmin: 1953 W
|
||||
CEC1: cappingmax: 2358 W
|
||||
CEC1: cappingvalue: 2000 W
|
||||
CEC1: cappingsoftmin: 304 W
|
||||
CEC1: averageAC: na
|
||||
CEC1: averageDC: na
|
||||
CEC1: ambienttemp: na
|
||||
CEC1: exhausttemp: na
|
||||
CEC1: CPUspeed: na
|
||||
CEC1: syssbpower: 40 W
|
||||
CEC1: sysIPLtime: 900 S
|
||||
CEC2: savingstatus: off
|
||||
CEC2: cappingstatus: off
|
||||
CEC2: cappingmin: 955 W
|
||||
CEC2: cappingmax: 1093 W
|
||||
CEC2: cappingvalue: 1000 W
|
||||
CEC2: cappingsoftmin: 226 W
|
||||
CEC2: averageAC: 627 W
|
||||
CEC2: averageDC: 531 W
|
||||
CEC2: ambienttemp: 25 C
|
||||
CEC2: exhausttemp: 40 C
|
||||
CEC2: CPUspeed: 4695 MHz
|
||||
=item 1
|
||||
|
||||
2. Query the attributes savingstatus, cappingstatus
|
||||
and CPUspeed for server CEC1.
|
||||
B<renergy> CEC1 savingstatus cappingstatus CPUspeed
|
||||
Query all the attributes which CEC1,CEC2 supported.
|
||||
|
||||
The output of the query operation:
|
||||
CEC1: savingstatus: off
|
||||
CEC1: cappingstatus: on
|
||||
CEC1: CPUspeed: 3621 MHz
|
||||
B<renergy> CEC1,CEC2 all
|
||||
|
||||
3. Turn on the power saving function of CEC1.
|
||||
B<renergy> CEC1 savingstatus=on
|
||||
The output of the query operation:
|
||||
CEC1: savingstatus: off
|
||||
CEC1: dsavingstatus: off
|
||||
CEC1: cappingstatus: off
|
||||
CEC1: cappingmin: 1953 W
|
||||
CEC1: cappingmax: 2358 W
|
||||
CEC1: cappingvalue: 2000 W
|
||||
CEC1: cappingsoftmin: 304 W
|
||||
CEC1: averageAC: na
|
||||
CEC1: averageDC: na
|
||||
CEC1: ambienttemp: na
|
||||
CEC1: exhausttemp: na
|
||||
CEC1: CPUspeed: na
|
||||
CEC1: syssbpower: 40 W
|
||||
CEC1: sysIPLtime: 900 S
|
||||
CEC2: savingstatus: off
|
||||
CEC2: cappingstatus: off
|
||||
CEC2: cappingmin: 955 W
|
||||
CEC2: cappingmax: 1093 W
|
||||
CEC2: cappingvalue: 1000 W
|
||||
CEC2: cappingsoftmin: 226 W
|
||||
CEC2: averageAC: 627 W
|
||||
CEC2: averageDC: 531 W
|
||||
CEC2: ambienttemp: 25 C
|
||||
CEC2: exhausttemp: 40 C
|
||||
CEC2: CPUspeed: 4695 MHz
|
||||
|
||||
The output of the setting operation:
|
||||
CEC1: Set savingstatus succeeded.
|
||||
CEC1: This setting may need some minutes to take effect.
|
||||
=item 2
|
||||
|
||||
4. Set the power capping value base on the percentage of the
|
||||
max-min capping value. Here, set it to 50%.
|
||||
B<renergy> CEC1 cappingperc=50
|
||||
Query all the attirbutes for management module node MM1. (For chassis)
|
||||
|
||||
If the maximum capping value of the CEC1 is 850w, and the
|
||||
minimum capping value of the CEC1 is 782w, the Power Capping
|
||||
value will be set as ((850-782)*50% + 782) = 816w.
|
||||
B<renergy> MM1 all
|
||||
|
||||
The output of the setting operation:
|
||||
CEC1: Set cappingperc succeeded.
|
||||
CEC1: cappingvalue: 816
|
||||
The output of the query operation:
|
||||
mm1: availableDC: 5880W
|
||||
mm1: frontpaneltmp: 18.00 Centigrade
|
||||
mm1: inusedAC: 2848W
|
||||
mm1: mmtmp: 28.00 Centigrade
|
||||
mm1: pd1avaiablepower: 2940W
|
||||
mm1: pd1inusedpower: 848W
|
||||
mm1: pd1policy: redundantWithoutPerformanceImpact
|
||||
mm1: pd1powermodule1: Bay 1: 2940W
|
||||
mm1: pd1powermodule2: Bay 2: 2940W
|
||||
mm1: pd1remainpower: 1269W
|
||||
mm1: pd1reservedpower: 1671W
|
||||
mm1: pd1status: 1 - Power domain status is good.
|
||||
mm1: pd2avaiablepower: 2940W
|
||||
mm1: pd2inusedpower: 1490W
|
||||
mm1: pd2policy: redundantWithoutPerformanceImpact
|
||||
mm1: pd2powermodule1: Bay 3: 2940W
|
||||
mm1: pd2powermodule2: Bay 4: 2940W
|
||||
mm1: pd2remainpower: 51W
|
||||
mm1: pd2reservedpower: 2889W
|
||||
mm1: pd2status: 2 - Warning: Power redundancy does not exist
|
||||
in this power domain.
|
||||
mm1: thermaloutput: 9717.376000 BTU/hour
|
||||
|
||||
=item 3
|
||||
|
||||
Query all the attirbutes for blade server node blade1.
|
||||
|
||||
B<renergy> blade1 all
|
||||
|
||||
The output of the query operation:
|
||||
blade1: capability: dynamicPowerMeasurement2
|
||||
blade1: capping: 349
|
||||
blade1: curalloc: 204W
|
||||
blade1: effCPU: 4005MHZ
|
||||
blade1: maxCPU: 4005MHZ
|
||||
blade1: maxalloc: 349W
|
||||
blade1: minalloc: 285W
|
||||
|
||||
=item 4
|
||||
|
||||
Query the attributes savingstatus, cappingstatus
|
||||
and CPUspeed for server CEC1.
|
||||
|
||||
B<renergy> CEC1 savingstatus cappingstatus CPUspeed
|
||||
|
||||
The output of the query operation:
|
||||
CEC1: savingstatus: off
|
||||
CEC1: cappingstatus: on
|
||||
CEC1: CPUspeed: 3621 MHz
|
||||
|
||||
=item 5
|
||||
|
||||
Turn on the power saving function of CEC1.
|
||||
|
||||
B<renergy> CEC1 savingstatus=on
|
||||
|
||||
The output of the setting operation:
|
||||
CEC1: Set savingstatus succeeded.
|
||||
CEC1: This setting may need some minutes to take effect.
|
||||
|
||||
=item 6
|
||||
|
||||
Set the power capping value base on the percentage of the
|
||||
max-min capping value. Here, set it to 50%.
|
||||
|
||||
B<renergy> CEC1 cappingperc=50
|
||||
|
||||
If the maximum capping value of the CEC1 is 850w, and the
|
||||
minimum capping value of the CEC1 is 782w, the Power Capping
|
||||
value will be set as ((850-782)*50% + 782) = 816w.
|
||||
|
||||
The output of the setting operation:
|
||||
CEC1: Set cappingperc succeeded.
|
||||
CEC1: cappingvalue: 816
|
||||
|
||||
=back
|
||||
|
||||
=head1 B<FILES>
|
||||
|
||||
|
||||
@@ -50,6 +50,7 @@ sub handled_commands {
|
||||
rbootseq => 'nodehm:mgt',
|
||||
reventlog => 'nodehm:mgt',
|
||||
switchblade => 'nodehm:mgt',
|
||||
renergy => 'nodehm:mgt',
|
||||
};
|
||||
}
|
||||
|
||||
@@ -1734,6 +1735,383 @@ sub beacon {
|
||||
}
|
||||
}
|
||||
|
||||
|
||||
# The oids which are used in the renergy command
|
||||
my $bladetype_oid = "1.3.6.1.4.1.2.3.51.2.2.21.1.1.1.0"; #bladeCenterVpdMachineType
|
||||
|
||||
my $pdstatus_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.3"; #fuelGaugeStatus
|
||||
my $pdpolicy_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.6"; #fuelGaugePowerManagementPolicySetting
|
||||
my $pdmodule1_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.4"; #fuelGaugeFirstPowerModule
|
||||
my $pdmodule2_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.5"; #fuelGaugeSecondPowerModule
|
||||
my $pdavailablepower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.7"; #fuelGaugeTotalPower
|
||||
my $pdreservepower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.8"; #fuelGaugeAllocatedPower
|
||||
my $pdremainpower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.9"; #fuelGaugeRemainingPower
|
||||
my $pdinused_oid = "1.3.6.1.4.1.2.3.51.2.2.10.1.1.1.10"; #fuelGaugePowerInUsed
|
||||
|
||||
my $chassisDCavailable_oid = ".1.3.6.1.4.1.2.3.51.2.2.10.5.1.1.0"; #chassisTotalDCPowerAvailable
|
||||
my $chassisACinused_oid = ".1.3.6.1.4.1.2.3.51.2.2.10.5.1.2.0"; #chassisTotalACPowerInUsed
|
||||
my $chassisThermalOutput_oid = ".1.3.6.1.4.1.2.3.51.2.2.10.5.1.3.0"; #chassisTotalThermalOutput
|
||||
|
||||
my $chassisFrontTmp_oid = ".1.3.6.1.4.1.2.3.51.2.2.1.5.1.0"; #frontPanelTemp
|
||||
my $mmtemp_oid = ".1.3.6.1.4.1.2.3.51.2.2.1.1.2.0"; #mmTemp
|
||||
|
||||
my $bladewidth_oid = "1.3.6.1.4.1.2.3.51.2.22.1.5.1.1.15"; #bladeWidth
|
||||
|
||||
my $curallocpower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.pdnum.1.1.7"; #pd1ModuleAllocatedPowerCurrent
|
||||
my $maxallocpower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.pdnum.1.1.8"; #pd1ModuleAllocatedPowerMax
|
||||
my $minallocpower_oid = "1.3.6.1.4.1.2.3.51.2.2.10.pdnum.1.1.9"; #pd1ModuleAllocatedPowerMin
|
||||
my $powercapability_oid = "1.3.6.1.4.1.2.3.51.2.2.10.pdnum.1.1.12"; #pd1ModulePowerCapabilities
|
||||
|
||||
my $powercapping_oid = "1.3.6.1.4.1.2.3.51.2.2.10.4.1.1.1.3"; #bladeDetailsMaxPowerConfig
|
||||
my $effCPU_oid = "1.3.6.1.4.1.2.3.51.2.2.10.4.1.1.1.4"; #bladeDetailsEffectiveClockRate
|
||||
my $maxCPU_oid = "1.3.6.1.4.1.2.3.51.2.2.10.4.1.1.1.5"; #bladeDetailsMaximumClockRate
|
||||
my $savingstatus_oid = "1.3.6.1.4.1.2.3.51.2.2.10.4.1.1.1.6"; #bladeDetailsPowerSaverMode
|
||||
|
||||
# The meaning of obj fuelGaugePowerManagementPolicySetting
|
||||
my %pdpolicymap = (
|
||||
'0' => "redundantWithoutPerformanceImpact",
|
||||
'1' => "redundantWithPerformanceImpact",
|
||||
'2' => "nonRedundant",
|
||||
'3' => "redundantACPowerSource",
|
||||
'4' => "acPowerSourceWithBladeThrottlingAllowed",
|
||||
'255' => "notApplicable",
|
||||
);
|
||||
|
||||
# The meaning of obj pd1/2ModulePowerCapabilities
|
||||
my %capabilitymap = (
|
||||
'0' => "noAbility",
|
||||
'1' => "staticPowerManagement",
|
||||
'2' => "fixedPowerManagement",
|
||||
'3' => "dynamicPowerManagement",
|
||||
'4' => "dynamicPowerMeasurement1",
|
||||
'5' => "dynamicPowerMeasurement2",
|
||||
'6' => "dynamicPowerMeasurement2",
|
||||
'255' => "notApplicable",
|
||||
);
|
||||
|
||||
# The valid attributes the renergy command can support
|
||||
# 1 for readonly; 2 for write; 3 readwrite
|
||||
my %mm_valid_items = (
|
||||
'all' => 1,
|
||||
'pd1all' => 1,
|
||||
'pd2all' => 1,
|
||||
'pd1status' => 1,
|
||||
'pd2status' => 1,
|
||||
'pd1policy' => 1,
|
||||
'pd2policy' => 1,
|
||||
'pd1powermodule1' => 1,
|
||||
'pd1powermodule2' => 1,
|
||||
'pd2powermodule1' => 1,
|
||||
'pd2powermodule2' => 1,
|
||||
'pd1avaiablepower' => 1,
|
||||
'pd2avaiablepower' => 1,
|
||||
'pd1reservedpower' => 1,
|
||||
'pd2reservedpower' => 1,
|
||||
'pd1remainpower' => 1,
|
||||
'pd2remainpower' => 1,
|
||||
'pd1inusedpower' => 1,
|
||||
'pd2inusedpower' => 1,
|
||||
'availableDC' => 1,
|
||||
'averageAC' => 1,
|
||||
'thermaloutput' => 1,
|
||||
'ambienttemp' => 1,
|
||||
'mmtemp' => 1,
|
||||
);
|
||||
my %blade_valid_items = (
|
||||
'all' => 1,
|
||||
'averageAC' => 1,
|
||||
'cappingmaxmin' => 1,
|
||||
'cappingmax' => 1,
|
||||
'cappingmin' => 1,
|
||||
'capability' => 1,
|
||||
'cappingvalue' => 1,
|
||||
'cappingwatt' => 2,
|
||||
'CPUspeed' => 1,
|
||||
'maxCPUspeed' => 1,
|
||||
'savingstatus' => 2,
|
||||
'dsavingstatus' => 2,
|
||||
);
|
||||
|
||||
|
||||
# use the slot number of serverblade to get the powerdomain number
|
||||
# and the bay number in the powerdomain
|
||||
sub getpdbayinfo {
|
||||
my ($bc_type, $slot) = @_;
|
||||
|
||||
my $pdnum = 0;
|
||||
my $pdbay = 0;
|
||||
|
||||
if ($bc_type =~ /^1886|7989|8852$/) { # for blade center H
|
||||
if ($slot < 8) {
|
||||
$pdnum = 1;
|
||||
$pdbay = $slot + 16;
|
||||
} elsif ($slot < 15) {
|
||||
$pdnum = 2;
|
||||
$pdbay = $slot + 16 -7;
|
||||
}
|
||||
} elsif ($bc_type =~ /^8740|8750$/) { # for blade center HT
|
||||
if ($slot < 7) {
|
||||
$pdnum = 1;
|
||||
$pdbay = $slot + 22;
|
||||
} elsif ($slot < 13) {
|
||||
$pdnum = 2;
|
||||
$pdbay = $slot + 12 -6;
|
||||
}
|
||||
} elsif ($bc_type =~ /^8720|8730$/) { # for blade center T
|
||||
if ($slot < 5) {
|
||||
$pdnum = 1;
|
||||
$pdbay = $slot + 12;
|
||||
} elsif ($slot < 9) {
|
||||
$pdnum = 2;
|
||||
$pdbay = $slot + 2 -4;
|
||||
}
|
||||
} elsif ($bc_type =~ /^8720|8730$/) { # for blade center S
|
||||
if ($slot < 7) {
|
||||
$pdnum = 1;
|
||||
$pdbay = $slot + 17;
|
||||
}
|
||||
} else { # for common blade center
|
||||
if ($slot < 7) {
|
||||
$pdnum = 1;
|
||||
$pdbay = $slot + 10;
|
||||
} elsif ($slot < 15) {
|
||||
$pdnum = 2;
|
||||
$pdbay = $slot - 6;
|
||||
}
|
||||
}
|
||||
|
||||
return ($pdnum, $pdbay);
|
||||
}
|
||||
|
||||
|
||||
# command to hand the renergy request
|
||||
sub renergy {
|
||||
my ($mpa, $node, $slot, @items) = @_;
|
||||
|
||||
if (!$mpa) {
|
||||
return (1, "The attribute [mpa] needs to be set for the node $node.");
|
||||
}
|
||||
if (!$slot) {
|
||||
return (1, "The attribute [id] needs to be set for the node $node.");
|
||||
}
|
||||
|
||||
# the type of blade center
|
||||
my $bc_type = "";
|
||||
|
||||
#check the validity of all the attributes
|
||||
my @readlist = ();
|
||||
my %writelist = ();
|
||||
foreach my $item (@items) {
|
||||
if (!$item) {
|
||||
next;
|
||||
}
|
||||
if ($item =~ /^all$/) {
|
||||
if ($mpa eq $node) {
|
||||
#handle the mm itself
|
||||
push @readlist, ('pd1status','pd2status','pd1policy','pd2policy',
|
||||
'pd1powermodule1','pd1powermodule2','pd2powermodule1',
|
||||
'pd2powermodule2','pd1avaiablepower','pd2avaiablepower',
|
||||
'pd1reservedpower','pd2reservedpower','pd1remainpower',
|
||||
'pd2remainpower','pd1inusedpower','pd2inusedpower',
|
||||
'availableDC','averageAC','thermaloutput','ambienttemp',
|
||||
'mmtemp');
|
||||
} else {
|
||||
push @readlist, ('averageAC','cappingmax','cappingmin','capability',
|
||||
'cappingvalue','CPUspeed','maxCPUspeed','savingstatus'.'dsavingstatus');
|
||||
}
|
||||
} elsif ($item =~ /^pd1all$/) {
|
||||
push @readlist, ('pd1status','pd1policy','pd1powermodule1',
|
||||
'pd1powermodule2','pd1avaiablepower','pd1reservedpower',
|
||||
'pd1remainpower','pd1inusedpower');
|
||||
} elsif ($item =~ /^pd2all$/) {
|
||||
push @readlist, ('pd2status','pd2policy','pd2powermodule1',
|
||||
'pd2powermodule2','pd2avaiablepower','pd2reservedpower',
|
||||
'pd2remainpower','pd2inusedpower');
|
||||
} elsif ($item =~ /^cappingmaxmin$/) {
|
||||
push @readlist, ('cappingmin','cappingmax');
|
||||
} elsif ($item =~ /(.*)=(.*)/) {
|
||||
my $name = $1;
|
||||
my $value = $2;
|
||||
if ($mpa eq $node) {
|
||||
if ($mm_valid_items{$name} < 2) {
|
||||
return (1, "$name is NOT writable.");
|
||||
}
|
||||
} else {
|
||||
if ($blade_valid_items{$name} < 2) {
|
||||
return (1, "$name is NOT writable.");
|
||||
}
|
||||
}
|
||||
$writelist{$name} = $value;
|
||||
} else {
|
||||
if ($mpa eq $node) {
|
||||
if ($mm_valid_items{$item} != 1 && $mm_valid_items{$item} != 3) {
|
||||
return (1, "$item is NOT a valid attribute.");
|
||||
}
|
||||
} else {
|
||||
if ($blade_valid_items{$item} != 1 && $blade_valid_items{$item} != 3) {
|
||||
return (1, "$item is NOT a valid attribute.");
|
||||
}
|
||||
}
|
||||
push @readlist, $item;
|
||||
}
|
||||
}
|
||||
|
||||
# does not support to read and write in one command
|
||||
if ( @readlist && %writelist ) {
|
||||
return (1, "Cannot handle read and write in one command.");
|
||||
}
|
||||
|
||||
if (! (@readlist || %writelist) ) {
|
||||
return (1, "Does not get any valid attributes.");
|
||||
}
|
||||
|
||||
# get the blade center type first
|
||||
if (grep (/^averageAC|cappingmax|cappingmin|capability$/, @readlist)) {
|
||||
$bc_type =$session->get([$bladetype_oid]);
|
||||
if ($session->{ErrorStr}) { return (1,$session->{ErrorStr}); }
|
||||
}
|
||||
|
||||
|
||||
my @output = ();
|
||||
foreach my $item (sort(@readlist)) {
|
||||
my $oid = "";
|
||||
if ($item eq "pd1status") {
|
||||
$oid = $pdstatus_oid.".1";
|
||||
} elsif ($item eq "pd2status") {
|
||||
$oid = $pdstatus_oid.".2";
|
||||
} elsif ($item eq "pd1policy") {
|
||||
$oid = $pdpolicy_oid.".1";
|
||||
} elsif ($item eq "pd2policy") {
|
||||
$oid = $pdpolicy_oid.".2";
|
||||
} elsif ($item eq "pd1powermodule1") {
|
||||
$oid = $pdmodule1_oid.".1";
|
||||
} elsif ($item eq "pd2powermodule1") {
|
||||
$oid = $pdmodule1_oid.".2";
|
||||
} elsif ($item eq "pd1powermodule2") {
|
||||
$oid = $pdmodule2_oid.".1";
|
||||
} elsif ($item eq "pd2powermodule2") {
|
||||
$oid = $pdmodule2_oid.".2";
|
||||
} elsif ($item eq "pd1avaiablepower") {
|
||||
$oid = $pdavailablepower_oid.".1";
|
||||
} elsif ($item eq "pd2avaiablepower") {
|
||||
$oid = $pdavailablepower_oid.".2";
|
||||
} elsif ($item eq "pd1reservedpower") {
|
||||
$oid = $pdreservepower_oid.".1";
|
||||
} elsif ($item eq "pd2reservedpower") {
|
||||
$oid = $pdreservepower_oid.".2";
|
||||
} elsif ($item eq "pd1remainpower") {
|
||||
$oid = $pdremainpower_oid.".1";
|
||||
} elsif ($item eq "pd2remainpower") {
|
||||
$oid = $pdremainpower_oid.".2";
|
||||
} elsif ($item eq "pd1inusedpower") {
|
||||
$oid = $pdinused_oid.".1";
|
||||
} elsif ($item eq "pd2inusedpower") {
|
||||
$oid = $pdinused_oid.".2";
|
||||
} elsif ($item eq "availableDC") {
|
||||
$oid = $chassisDCavailable_oid;
|
||||
} elsif ($item eq "thermaloutput") {
|
||||
$oid = $chassisThermalOutput_oid;
|
||||
} elsif ($item eq "ambienttemp") {
|
||||
$oid = $chassisFrontTmp_oid;
|
||||
} elsif ($item eq "mmtemp") {
|
||||
$oid = $mmtemp_oid;
|
||||
} elsif ($item eq "averageAC") {
|
||||
if ($mpa eq $node) {
|
||||
# for management module
|
||||
$oid = $chassisACinused_oid;
|
||||
} else {
|
||||
# for server blade
|
||||
my ($pdnum, $pdbay) = getpdbayinfo($bc_type, $slot);
|
||||
$oid = $curallocpower_oid;
|
||||
$pdnum++;
|
||||
$oid =~ s/pdnum/$pdnum/;
|
||||
$oid = $oid.".".$pdbay;
|
||||
}
|
||||
} elsif ($item eq "cappingmax") {
|
||||
my ($pdnum, $pdbay) = getpdbayinfo($bc_type, $slot);
|
||||
$oid = $maxallocpower_oid;
|
||||
$pdnum++;
|
||||
$oid =~ s/pdnum/$pdnum/;
|
||||
$oid = $oid.".".$pdbay;
|
||||
} elsif ($item eq "cappingmin") {
|
||||
my ($pdnum, $pdbay) = getpdbayinfo($bc_type, $slot);
|
||||
$oid = $minallocpower_oid;
|
||||
$pdnum++;
|
||||
$oid =~ s/pdnum/$pdnum/;
|
||||
$oid = $oid.".".$pdbay;
|
||||
} elsif ($item eq "capability") {
|
||||
my ($pdnum, $pdbay) = getpdbayinfo($bc_type, $slot);
|
||||
$oid = $powercapability_oid;
|
||||
$pdnum++;
|
||||
$oid =~ s/pdnum/$pdnum/;
|
||||
$oid = $oid.".".$pdbay;
|
||||
} elsif ($item eq "cappingvalue") {
|
||||
$oid = $powercapping_oid.".".$slot;
|
||||
} elsif ($item eq "CPUspeed") {
|
||||
$oid = $effCPU_oid.".".$slot;
|
||||
} elsif ($item eq "maxCPUspeed") {
|
||||
$oid = $maxCPU_oid.".".$slot;
|
||||
} elsif ($item eq "savingstatus") {
|
||||
$oid = "";
|
||||
push @output, "$item: not support now.";
|
||||
} elsif ($item eq "dsavingstatus") {
|
||||
$oid = "";
|
||||
push @output, "$item: not support now.";
|
||||
}
|
||||
|
||||
if ($oid ne "") {
|
||||
my $data=$session->get([$oid]);
|
||||
if ($session->{ErrorStr}) { return (1,$session->{ErrorStr}); }
|
||||
|
||||
if ($data ne ""
|
||||
&& $data ne "NOSUCHINSTANCE"
|
||||
&& $data ne "notApplicable" ) {
|
||||
if ($item =~ /pd[1|2]policy/) {
|
||||
push @output, "$item: $pdpolicymap{$data}";
|
||||
} elsif ($item eq "capability") {
|
||||
push @output, "$item: $capabilitymap{$data}";
|
||||
} elsif ($item eq "cappingvalue") {
|
||||
if ($data eq "0") {
|
||||
push @output,"$item: na";
|
||||
} else {
|
||||
push @output, "$item: $data"."W";
|
||||
}
|
||||
} elsif ($item =~/averageAC|cappingmax|cappingmin/) {
|
||||
my $bladewidth = $session->get([$bladewidth_oid.".$slot"]);
|
||||
if ($session->{ErrorStr}) { return (1,$session->{ErrorStr}); }
|
||||
foreach (1..$bladewidth-1) {
|
||||
$oid =~ /(\d+)$/;
|
||||
my $next = $1+$_;
|
||||
$oid =~ s/(\d+)$/$next/;
|
||||
my $nextdata=$session->get([$oid]);
|
||||
if ($session->{ErrorStr}) { return (1,$session->{ErrorStr}); }
|
||||
$data += $nextdata;
|
||||
}
|
||||
push @output, "$item: $data";
|
||||
} else {
|
||||
push @output,"$item: $data";
|
||||
}
|
||||
} else {
|
||||
push @output,"$item: na";
|
||||
}
|
||||
}
|
||||
}
|
||||
|
||||
foreach my $item (keys %writelist) {
|
||||
my $oid = "";
|
||||
if ($item eq "cappingvalue") {
|
||||
$oid = $powercapping_oid;
|
||||
}
|
||||
|
||||
my $data = $session->set(new SNMP::Varbind([".".$oid, $slot, $writelist{$item} ,'INTEGER']));
|
||||
unless ($data) { return (1,$session->{ErrorStr}); }
|
||||
push @output, "$item: set value to $writelist{$item}";
|
||||
}
|
||||
|
||||
return (0, @output);
|
||||
}
|
||||
|
||||
|
||||
sub bladecmd {
|
||||
$mpa = shift;
|
||||
my $node = shift;
|
||||
@@ -1775,6 +2153,8 @@ sub bladecmd {
|
||||
return eventlog(@args);
|
||||
} elsif ($command eq "rscan") {
|
||||
return rscan(\@args);
|
||||
} elsif ($command eq "renergy") {
|
||||
return renergy($mpa, $node, $slot, @args);
|
||||
}
|
||||
|
||||
return (1,"$command not a supported command by blade method");
|
||||
@@ -2094,6 +2474,14 @@ sub preprocess_request {
|
||||
return;
|
||||
}
|
||||
}
|
||||
} elsif ($command eq "renergy") {
|
||||
if (! @exargs) {
|
||||
$usage_string="Missing arguments\n";
|
||||
$usage_string .=xCAT::Usage->getUsage($command);
|
||||
$callback->({data=>$usage_string});
|
||||
$request = {};
|
||||
return;
|
||||
}
|
||||
}
|
||||
|
||||
if (!$noderange) {
|
||||
|
||||
Reference in New Issue
Block a user