svcadm(1M)을 검색하려면 섹션에서 1M 을 선택하고, 맨 페이지 이름에 svcadm을 입력하고 검색을 누른다.
cfgadm_sbd(8)
System Administration Commands cfgadm_sbd(8)
NAME
cfgadm_sbd - cfgadm commands for system board administration
SYNOPSIS
cfgadm -l [-a] [-o parsable] ap_id...
cfgadm -c function [-f] [-y | -n]
[-o unassign | nopoweroff] [-v] ap_id...
cfgadm -t [-v] ap_id...
cfgadm -x [-f] [-v] function ap_id...
DESCRIPTION
The cfgadm_sbd plugin provides dynamic reconfiguration functionality
for connecting, configuring, unconfiguring, and disconnecting class sbd
system boards. It also enables you to connect or disconnect a system
board from a running system without having to reboot the system.
The cfgadm command resides in /usr/sbin. See cfgadm(8).
Each board slot appears as a single attachment point in the device
tree. Each component appears as a dynamic attachment point. You can
view the type, state, and condition of each component, and the states
and condition of each board slot by using the -a option.
The cfgadm options perform differently depending on the platform. Addi‐
tionally, the form of the attachment points is different depending on
the platform. See the Platform Notes section for more information.
Component Conditions
The following are the names and descriptions of the component condi‐
tions:
failed
The component failed testing.
ok
The component is operational.
unknown
The component has not been tested.
Component States
The following is the name and description of the receptacle state for
components:
connected
The component is connected to the board slot.
The following are the names and descriptions of the occupant states for
components:
configured
The component is available for use by the Solaris operating system.
unconfigured
The component is not available for use by the Solaris operating
system.
Board Conditions
The following are the names and descriptions of the board conditions.
failed
The board failed testing.
ok
The board is operational.
unknown
The board has not been tested.
unusable
The board slot is unusable.
Board States
Inserting a board changes the receptacle state from empty to discon‐
nected. Removing a board changes the receptacle state from disconnected
to empty.
Caution: Removing a board that is in the connected state or that is
powered on and in the disconnected state crashes the operating system
and can result in permanent damage to the system.
The following are the names and descriptions of the receptacle states
for boards:
connected
The board is powered on and connected to the system bus. You can
view the components on a board only after it is in the connected
state.
disconnected
The board is disconnected from the system bus. A board can be in
the disconnected state without being powered off. However, a board
must be powered off and in the disconnected state before you remove
it from the slot.
empty
A board is not present.
The occupant state of a disconnected board is always unconfigured. The
following table contains the names and descriptions of the occupant
states for boards:
configured
At least one component on the board is configured.
unconfigured
All of the components on the board are unconfigured.
Dynamic System Domains
Platforms based on dynamic system domains (DSDs, referred to as domains
in this document) divide the slots in the chassis into electrically
isolated hardware partitions (that is, DSDs). Platforms that are not
based on DSDs assign all slots to the system permanently.
A slot can be empty or populated, and it can be assigned or available
to any number of domains. The number of slots available to a given
domain is controlled by an available component list (ACL) that is main‐
tained on the system controller. The ACL is not the access control list
provided by the Solaris operating system.
A slot is visible to a domain only if the slot is in the domain's ACL
and if it is not assigned to another domain. An unassigned slot is vis‐
ible to all domains that have the slot in their ACL. After a slot has
been assigned to a domain, the slot is no longer visible to any other
domain.
A slot that is visible to a domain, but not assigned, must first be
assigned to the domain before any other state changing commands are
applied. The assign can be done explicitly using -x assign or implic‐
itly as part of a connect. A slot must be unassigned from a domain
before it can be used by another domain. The unassign is always
explicit, either directly using -x unassign or as an option to discon‐
nect using -o unassign.
State Change Functions
Functions that change the state of a board slot or a component on the
board can be issued concurrently against any attachment point. Only one
state changing operation is permitted at a given time. A Y in the Busy
field in the state changing information indicates an operation is in
progress.
The following list contains the functions that change the state:
o configure
o unconfigure
o connect
o disconnect
Availability Change Functions
Commands that change the availability of a board can be issued concur‐
rently against any attachment point. Only one availability change oper‐
ation is permitted at a given time. These functions also change the
information string in the cfgadm -l output. A Y in the Busy field
indicates that an operation is in progress.
The following list contains the functions that change the availability:
o assign
o unassign
Condition Change Functions
Functions that change the condition of a board slot or a component on
the board can be issued concurrently against any attachment point. Only
one condition change operation is permitted at a given time. These
functions also change the information string in the cfgadm -l output.
A Y in the Busy field indicates an operation is in progress.
The following list contains the functions that change the condition:
o poweron
o poweroff
o test
Unconfigure Process
This section contains a description of the unconfigure process, and
illustrates the states of source and target boards at different stages
during the process of moving permanent memory.
In the following code examples, the permanent memory on board 0 must be
moved to another board in the domain. Thus, board 0 is the source, and
board 1 is the target.
A status change operation cannot be initiated on a board while it is
marked as busy. For brevity, the CPU information has been removed from
the code examples.
The process is started with the following command:
# cfgadm -c unconfigure -y SB0::memory &
First, the memory on board 1 in the same address range as the permanent
memory on board 0 must be deleted. During this phase, the source board,
the target board, and the memory attachment points are marked as busy.
You can display the status with the following command:
# cfgadm -a -s cols=ap_id:type:r_state:o_state:busy SB0 SB1
Ap_Id Type Receptacle Occupant Busy
SB0 CPU connected configured y
SB0::memory memory connected configured y
SB1 CPU connected configured y
SB1::memory memory connected configured y
After the memory has been deleted on board 1, it is marked as unconfig‐
ured. The memory on board 0 remains configured, but it is still marked
as busy, as in the following example.
Ap_Id Type Receptacle Occupant Busy
SB0 CPU connected configured y
SB0::memory memory connected configured y
SB1 CPU connected configured y
SB1::memory memory connected unconfigured n
The memory from board 0 is then copied to board 1. After it has been
copied, the occupant state for the memory is switched. The memory on
board 0 becomes unconfigured, and the memory on board 1 becomes config‐
ured. At this point in the process, only board 0 remains busy, as in
the following example.
Ap_Id Type Receptacle Occupant Busy
SB0 CPU connected configured y
SB0::memory memory connected unconfigured n
SB1 CPU connected configured n
SB1::memory memory connected configured n
After the entire process has been completed, the memory on board 0
remains unconfigured, and the attachment points are not busy, as in the
following example.
Ap_Id Type Receptacle Occupant Busy
SB0 CPU connected configured n
SB0::memory memory connected unconfigured n
SB1 CPU connected configured n
SB1::memory memory connected configured n
The permanent memory has been moved, and the memory on board 0 has been
unconfigured. At this point, you can initiate a new state changing
operation on either board.
Platform-Specific Options
You can specify platform-specific options that follow the options
interpreted by the system board plugin. All platform-specific options
must be preceded by the platform keyword. The following example con‐
tains the general format of a command with platform-specific options:
command -o sbd_options,platform=platform_options
OPTIONS
This man page does not include the -v, -a, -s, or -h options for the
cfgadm command. See cfgadm(8) for descriptions of those options. The
following options are supported by the cfgadm_sbd plugin:
-c function
Performs a state change function. You can use the following func‐
tions:
unconfigure
Changes the occupant state to unconfigured. This function
applies to system board slots and to all of the components on
the system board.
The unconfigure function removes the CPUs from the CPU list and
deletes the physical memory from the system memory pool. If any
device is still in use, the cfgadm command fails and reports
the failure to the user. You can retry the command as soon as
the device is no longer busy. If a CPU is in use, you must
ensure that it is off line before you proceed. See pbind(8),
psradm(8) and psrinfo(8).
The unconfigure function moves the physical memory to another
system board before it deletes the memory from the board you
want to unconfigure. Depending of the type of memory being
moved, the command fails if it cannot find enough memory on
another board or if it cannot find an appropriate physical mem‐
ory range.
For permanent memory, the operating system must be suspended
(that is, quiesced) while the memory is moved and the memory
controllers are reprogrammed. If the operating system must be
suspended, you will be prompted to proceed with the operation.
You can use the -y or -n options to always answer yes or no
respectively.
Moving memory can take several minutes to complete, depending
on the amount of memory and the system load. You can monitor
the progress of the operation by issuing a status command
against the memory attachment point. You can also interrupt the
memory operation by stopping the cfgadm command. The deleted
memory is returned to the system memory pool.
disconnect
Changes the receptacle state to disconnected. This function
applies only to system board slots.
If the occupant state is configured, the disconnect function
attempts to unconfigure the occupant. It then powers off the
system board. At this point, the board can be removed from the
slot.
This function leaves the board in the assigned state on plat‐
forms that support dynamic system domains.
If you specify -o nopoweroff, the disconnect function leaves
the board powered on. If you specify -o unassign, the discon‐
nect function unassigns the board from the domain.
If you unassign a board from a domain, you can assign it to
another domain. However, if it is assigned to another domain,
it is not available to the domain from which is was unassigned.
configure
Changes the occupant state to configured. This function applies
to system board slots and to any components on the system
board.
If the receptacle state is disconnected, the configure function
attempts to connect the receptacle. It then walks the tree of
devices that is created by the connect function, and attaches
the devices if necessary. Running this function configures all
of the components on the board, except those that have already
been configured.
For CPUs, the configure function adds the CPUs to the CPU list.
For memory, the configure function ensures that the memory is
initialized then adds the memory to the system memory pool. The
CPUs and the memory are ready for use after the configure func‐
tion has been completed successfully.
For I/O devices, you must use the mount and the ifconfig com‐
mands before the devices can be used. See ifconfig(8) and
mount(8).
connect
Changes the receptacle state to connected. This function
applies only to system board slots.
If the board slot is not assigned to the domain, the connect
function attempts to assign the slot to the domain. Next, it
powers on and tests the board, then it connects the board elec‐
tronically to the system bus and probes the components.
After the connect function is completed successfully, you can
use the -a option to view the status of the components on the
board. The connect function leaves all of the components in the
unconfigured state.
The assignment step applies only to platforms that support
dynamic system domains.
-f
Overrides software state changing constraints.
The -f option never overrides fundamental safety and availability
constraints of the hardware and operating system.
-l
Lists the state and condition of attachment points specified in the
format controlled by the -s, -v, and -a options as specified in
cfgadm(8). The cfgadm_sbd plugin provides specific information in
the info field as described below. The format of this information
might be altered by the -o parsable option.
The parsable info field is composed of the following:
cpu
The cpu type displays the following information:
cpuid=#[,#...]
Where # is a number, and represents the ID of the CPU. If
more than one # is present, this CPU has multiple active
virtual processors.
speed=#
Where # is a number and represents the speed of the CPU in
MHz.
ecache=#
Where # is a number and represents the size of the ecache
in MBytes. If the CPU has multiple active virtual proces‐
sors, the ecache could either be shared among the virtual
processors, or divided between them.
memory
The memory type displays the following information, as appro‐
priate:
address=#
Where # is a number, representing the base physical
address.
size=#
Where # is a number, representing the size of the memory in
KBytes.
permanent=#
Where # is a number, representing the size of permanent
memory in KBytes.
unconfigurable
An operating system setting that prevents the memory from
being unconfigured.
inter-board-interleave
The board is participating in interleaving with other
boards.
source=ap_id
Represents the source attachment point.
target=ap_id
Represents the target attachment point.
deleted=#
Where # is a number, representing the amount of memory that
has already been deleted in KBytes.
remaining=#
Where # is a number, representing the amount of memory to
be deleted in KBytes.
io
The io type displays the following information:
device=path
Represents the physical path to the I/O component.
referenced
The I/O component is referenced.
board
The board type displays the following boolean names. If they
are not present, then the opposite applies.
assigned
The board is assigned to the domain.
powered-on
The board is powered on.
The same items appear in the info field in a more readable for‐
mat if the -o parsable option is not specified.
-o parsable
Returns the information in the info field as a boolean name or a
set of name=value pairs, separated by a space character.
The -o parsable option can be used in conjunction with the -s
option. See the cfgadm(8) man page for more information about the
-s option.
-t
Tests the board.
Before a board can be connected, it must pass the appropriate level
of testing.
Use of this option always attempts to test the board, even if it
has already passed the appropriate level of testing. Testing is
also performed when a -c connect state change function is issued,
in which case the test step can be skipped if the board already
shows an appropriate level of testing. Thus the -t option can be
used to explicitly request that the board be tested.
-x function
Performs an sbd-class function. You can use the following func‐
tions:
assign
Assigns a board to a domain.
The receptacle state must be disconnected or empty. The board
must also be listed in the domain available component list. See
Dynamic System Domains.
unassign
Unassigns a board from a domain.
The receptacle state must be disconnected or empty. The board
must also be listed in the domain available component list. See
Dynamic System Domains.
poweron
Powers the system board on.
The receptacle state must be disconnected.
poweroff
Powers the system board off.
The receptacle state must be disconnected.
OPERANDS
The following operands are supported:
Receptacle ap_id
For the Sun Fire high-end systems such as the Sun Fire 15K, the
receptacle attachment point ID takes the form SBX or IOX, where X
equals the slot number.
The exact format depends on the platform and typically corresponds
to the physical labeling on the machine. See the platform specific
information in the NOTES section.
Component ap_id
The component attachment point ID takes the form component_typeX,
where component_type equals one of the component types described in
"Component Types" and X equals the component number. The component
number is a board-relative unit number.
The above convention does not apply to memory components. Any DR
action on a memory attachment point affects all of the memory on
the system board.
EXAMPLES
The following examples show user input and system output on a Sun Fire
15K system. User input, specifically references to attachment points
and system output might differ on other Sun Fire systems, such as the
Sun Fire midrange systems such as the 6800. Refer to the Platform Notes
for specific information about using the cfgadm_sbd plugin on non-Sun
Fire high-end models.
Example 1 Listing All of the System Board
# cfgadm -a -s "select=class(sbd)"
Ap_Id Type Receptacle Occupant Condition
SB0 CPU connected configured ok
SB0::cpu0 cpu connected configured ok
SB0::memory memory connected configured ok
IO1 HPCI connected configured ok
IO1::pci0 io connected configured ok
IO1::pci1 io connected configured ok
SB2 CPU disconnected unconfigured failed
SB3 CPU disconnected unconfigured unusable
SB4 unknown empty unconfigured unknown
This example demonstrates the mapping of the following conditions:
o The board in Slot 2 failed testing.
o Slot 3 is unusable; thus, you cannot hot plug a board into
that slot.
Example 2 Listing All of the CPUs on the System Board
# cfgadm -a -s "select=class(sbd):type(cpu)"
Ap_Id Type Receptacle Occupant Condition
SB0::cpu0 cpu connected configured ok
SB0::cpu1 cpu connected configured ok
SB0::cpu2 cpu connected configured ok
SB0::cpu3 cpu connected configured ok
Example 3 Displaying the CPU Information Field
# cfgadm -l -s noheadings,cols=info SB0::cpu0
cpuid 16, speed 400 MHz, ecache 8 Mbytes
Example 4 Displaying the CPU Information Field in Parsable Format
# cfgadm -l -s noheadings,cols=info -o parsable SB0::cpu0
cpuid=16 speed=400 ecache=8
Example 5 Displaying the Devices on an I/O Board
# cfgadm -a -s noheadings,cols=ap_id:info -o parsable IO1
IO1 powered-on assigned
IO1::pci0 device=/devices/saf@0/pci@0,2000 referenced
IO1::pci1 device=/devices/saf@0/pci@1,2000 referenced
Example 6 Monitoring an Unconfigure Operation
In the following example, the memory sizes are displayed in Kbytes.
# cfgadm -c unconfigure -y SB0::memory &
# cfgadm -l -s noheadings,cols=info -o parsable SB0::memory SB1::memory
address=0x0 size=2097152 permanent=752592 target=SB1::memory
deleted=1273680 remaining=823472
address=0x1000000 size=2097152 source=SB0::memory
Example 7 Assigning a Slot to a Domain
# cfgadm -x assign SB2
Example 8 Unassigning a Slot from a Domain
# cfgadm -x unassign SB3
ATTRIBUTES
See attributes(7) for a description of the following attribute:
tab() box; cw(2.75i) |cw(2.75i) lw(2.75i) |lw(2.75i) ATTRIBUTE TYPEAT‐
TRIBUTE VALUE _ Availabilitysystem/library/platform _ StabilitySee
below.
The interface stability is evolving. The output stability is unstable.
SEE ALSO
config_admin(3CFGADM), attributes(7), cfgadm(8), devfsadm(8), ifcon‐
fig(8), mount(8), pbind(8), psradm(8), psrinfo(8)
NOTES
This section contains information on how to monitor the progress of a
memory delete operation. It also contains platform specific informa‐
tion.
Memory Delete Monitoring
The following shell script can be used to monitor the progress of a
memory delete operation.
# cfgadm -c unconfigure -y SB0::memory &
# watch_memdel SB0
#!/bin/sh
# This is the watch_memdel script.
if [ -z "$1" ]; then
printf "usage: %s board_id\n" `basename $0`
exit 1
fi
board_id=$1
cfgadm_info='cfgadm -s noheadings,cols=info -o parsable'
eval `$cfgadm_info $board_id::memory`
if [ -z "$remaining" ]; then
echo no memory delete in progress involving $board_id
exit 0
fi
echo deleting target $target
while true
do
eval `$cfgadm_info $board_id::memory`
if [ -n "$remaining" -a "$remaining" -ne 0 ]
then
echo $deleted KBytes deleted, $remaining KBytes remaining
remaining=
else
echo memory delete is done
exit 0
fi
sleep 1
done
exit 0
Sun Enterprise 10000 Platform Notes
The following syntax is used to refer to attachment points on the Sun
Enterprise 10000 system:
board::component
...where board refers to the system board; and component refers to the
individual component. System boards can range from SB0 (zero) to SB15.
A maximum of sixteen system boards are available.
The DR 3.0 model running on a Sun Enterprise 10000 domain supports a
limited subset of the functionality provided by the cfgadm_sbd plugin.
The only supported operation is to view the status of attachment points
in the domain. This corresponds to the -l option and all of its associ‐
ated options.
Attempting to perform any other operation from the domain will result
in an error that states that the operation is not supported. All opera‐
tions to add or remove a system board must be initiated from the System
Service Processor.
Sun Fire High-End System Platform Notes
The following syntax is used to refer to attachment points on the Sun
Fire high-end systems:
board::component
where board refers to the system board or I/O board; and component
refers to the individual component.
Depending on the system's configuration, system boards can range from
SB0 (zero) through SB17, and I/O boards can range from IO0 (IO zero)
through IO17. (A maximum of eighteen system and I/O boards are avail‐
able).
The -t and -x options behave differently on the Sun Fire high-end sys‐
tem platforms. The following list describes their behavior:
-t
The system controller uses a CPU to test system boards by running
LPOST, sequenced by the hpost command. To test I/O boards, the
driver starts the testing in response to the -t option, and the
test runs automatically without user intervention. The driver
unconfigures a CPU and a stretch of contiguous physical memory.
Then, it sends a command to the system controller to test the
board. The system controller uses the CPU and memory to test the
I/O board from inside of a transaction/error cage. You can only use
CPUs from system boards (not MCPU boards) to test I/O boards.
-x assign | unassign
In the Sun Fire high-end system administration model, the platform
administrator controls the platform hardware through the use of an
available component list for each domain. This information is main‐
tained on the system controller. Only the platform administrator
can modify the available component list for a domain.
The domain administrator is only allowed to assign or unassign a
board if it is in the available component list for that domain. The
platform administrator does not have this restriction, and can
assign or unassign a board even if it is not in the available com‐
ponent list for a domain.
Sun Fire 15K Component Types
The following are the names and descriptions of the component types:
cpu
CPU
io
I/O device
memory
Memory
Note: An operation on a memory component affects all of the memory com‐
ponents on the board.
Sun Fire Midrange Systems Platform Notes
References to attachment points are slightly different on Sun Fire
midrange servers such as the 6800, 4810, 4800, and 3800 systems than on
the Sun Fire high-end systems. The following syntax is used to refer to
attachment points on Sun Fire systems other than the Sun Fire 15K:
N#.board::component
where N# refers to the node; board refers to the system board or I/O
board; and component refers to the individual component.
Depending on the system's configuration, system boards can range from
SB0 through SB5, and I/O boards can range from IB6 through IB9. (A max‐
imum of six system and four I/O boards are available).
Sun Fire Midrange System Component Types
The following are the names and descriptions of the component types:
cpu
CPU
pci
I/O device
memory
Memory
Note: An operation on a memory component affects all of the memory com‐
ponents on the board.
Oracle Solaris 11.4 11 May 2021 cfgadm_sbd(8)