Dell PowerEdge C8000
Hardware Owner’s
Manual
Regulatory Model: B10S
Regulatory Type: B10S001
Contents
1
About the System
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Accessing System Features During Startup.
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Front-Panel Features and Indicators
Back-Panel Features and Indicators
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NIC Indicator Codes .
Sled Bay Numbering.
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Fan Bay Numbering
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Sled Module Configuration
Sled Features
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Compute Sleds .
Storage Sleds.
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Power Sleds
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Service Tag.
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Server Enclosure .
Sleds
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POST Error Codes
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42
Collecting System Event Log for Investigation .
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Contents
3
System Event Log.
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Processor Error .
Memory Ecc.
PCIe Error .
IOH Core Error
SB Error .
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POST Start Event .
POST End Event .
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BIOS Recovery Event .
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ME Fail Event .
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BMC
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Other Information You May Need
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68
69
System Setup Menu
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System Setup Options at Boot .
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Using the System Setup Program Navigation Keys .
General Help .
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Console Redirection .
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69
Enabling and Configuring Console Redirection.
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Main Menu .
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Main Screen
System Settings.
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Contents
Advanced Menu .
Power Management
CPU Configuration
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SATA Configuration.
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PCI Configuration .
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USB Configuration
Security Menu .
Server Menu .
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109
View System Log .
Boot Menu .
Exit Menu
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118
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Options .
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IPMI Command List
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Power Management Settings .
SNMP
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SNMP Support for the Server Enclosure
Fan Controller Board .
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FCB Firmware Behavior
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MIB Tree Diagram for FCB .
FCB SNMP MIB.
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SNMP Support for the External PDU
Power Management Controller Board .
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167
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PMC Firmware Behavior .
MIB Tree Diagram for PMC
PMC SNMP MIB . .
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Contents
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3
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Safety Instructions .
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About the Illustrations .
Recommended Tools .
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Inside the System.
Sled Blank .
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190
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Removing a Double-Wide Sled Blank
Installing a Double-Wide Sled Blank .
Removing a Single-Wide Sled Blank .
Installing a Single-Wide Sled Blank
Compute Sleds .
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192
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Removing a Compute Sled
Installing a Compute Sled.
Storage Sled .
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Power Sled .
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Inside a Power Sled.
Removing a Power Sled.
Installing a Power Sled .
Removing the PSU1/3 Module Assembly .
Installing the PSU1/3 Module Assembly .
Removing the PSU2/4 Module Assembly .
Installing the PSU2/4 Module Assembly .
Removing the PSU Module .
Installing the PSU Module
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6
Contents
Fan Modules .
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207
Removing a Fan Module
Front Panel Board .
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209
Removing the Front Panel Board .
Fan Controller Board.
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211
212
Removing the Fan Controller Board
Installing the Fan Controller Board.
Backplane/Fan Bay Cage
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212
212
Removing the Backplane/Fan Bay Cage .
PDU Power Supply.
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217
PDU Power Supply Indicator Code .
Removing a PDU Power Supply
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221
Installation Guidelines
Recommended Tools.
Installation Tasks
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222
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222
Installing the Tool-Less Rail Solution
in the Rack .
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223
Removing Sled Modules from the Server
Enclosure
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228
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Installing the Server Enclosure into the Rack
Contents
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237
Connecting the Power Cables .
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Server Enclosure with Internal
Power Source.
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Connecting the Power Cable to the
Power Source.
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238
Connecting the Server Enclosure to
a Rack PDU.
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239
Connecting a Network Switch to
a Rack PDU.
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5
Troubleshooting
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251
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Safety First—For You and Your System
Installation Problems
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Troubleshooting System Startup Failure.
Troubleshooting External Connections .
Troubleshooting the Video Subsystem.
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Troubleshooting a USB Device
Troubleshooting a Serial I/O Device.
Troubleshooting a NIC .
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8
Contents
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257
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Troubleshooting Enclosure Fan Modules .
Troubleshooting Cooling Problems .
Troubleshooting Sled Components
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Troubleshooting System Memory
Troubleshooting a Hard-Drive
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Troubleshooting Expansion Cards .
Troubleshooting Processors .
Troubleshooting the System Board
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6
Updating Firmware Images and
Status
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Verifying and Updating the Fan Controller
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275
Viewing the Fan Controller Board
Updating the Fan Controller Board
Firmware .
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Verifying and Updating the Fan Controller
Board Firmware Via SNMP .
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276
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277
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Before You Begin .
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Checking FCB Indicators .
Resetting the FCB Network Connection .
Viewing or Changing the FCB
Configuration Information
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278
Contents
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Configuring the SNMP Traps .
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278
Viewing the FCB Firmware Version
Information
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280
Monitoring the External PDU Power Status
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Before You Begin .
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Checking PDU Indicators .
Resetting the PDU Network Connection .
Viewing or Changing the PMC
Configuration Information.
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282
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Configuring the SNMP Traps .
Updating the PMC Firmware .
Viewing the PMC Firmware Version
Information
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284
7
Jumpers and Connectors
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Server Enclosure Boards
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285
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286
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Fan Controller Board Connectors.
Power Management Board Connectors .
8
Getting Help
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289
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Contacting Dell .
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291
10
Contents
1
About the System
The PowerEdge C8000 server enclosure features ten vertically aligned sled
bays which support a full sled or a mixed sled enclosure. A full sled enclosure
can include up to five C8220X double-wide compute sleds, ten C8220
single-wide compute sleds, or five C8000XD storage sleds. A mixed sled
enclosure can support a mixture of differing sled types. To function as a
system, a compute sled is inserted into the PowerEdge C8000 server enclosure
that supports fans and is connected to an external power source or an internal
power source (power sleds). The redundant system fans are shared resources
of the sleds in the PowerEdge C8000 server enclosure.
NOTE: To ensure proper operation and cooling, all bays in the enclosure must be
populated at all times with either a sled or with a sled blank.
NOTE: Throughout this manual, the PowerEdge C8000 server enclosure is referred
to as simply the "server enclosure" or the "chassis".
About the System
11
Accessing System Features During Startup
The following keystrokes provide access to system features during startup.
The SAS/SATA card or PXE hotkey support are available only in the BIOS
boot mode. Hotkey function is not available in the Unified Extensible
Firmware Interface (UEFI) boot mode.
Keystroke
Description
<F2>
Enters the System Setup program. See "System Setup Menu" on
page 67.
<F11>
Enters the BIOS Boot Manager or the Unified Extensible
Firmware Interface (UEFI) Boot Manager, depending on the
system's boot configuration.
<F12>
Starts Preboot eXecution Environment (PXE) boot.
<Ctrl><C>
Enters the LSI 2008 SAS Mezzanine Card Configuration Utility.
For more information, see the SAS adapter documentation.
<Ctrl><H>
<Ctrl><S>
<Ctrl><I>
Enters the LSI 2008 SAS Mezzanine Card Configuration Utility.
For more information, see the documentation for your SAS RAID
card.
Enters the utility to configure onboard NIC settings for PXE boot.
For more information, see the documentation for your integrated
NIC.
Enters the onboard SAS and SATA controller’s configuration
utility.
12
About the System
Front-Panel Features and Indicators
Figure 1-1. Front-Panel Features and Indicators
Item
Feature
Icon
Description
1 - 10
Sled bays 1 to 10
Installs up to five C8220X compute sleds,
ten C8220 compute sleds, five C8000XD
storage sleds, or a mixture of differing sled
types.
NOTE: Sled bays 1 and 2 support installation
of two C8220 or one C8220X compute sleds.
For server enclosure with internal power
source, C8000XD storage sleds install in sled
bays 3 to 10 only.
Sled bays 5 and 6
Installs up to two power sleds or two C8220
compute sleds or a combination of the two
sled types.
NOTE: If the enclosure is configured with
only one power sled, a C8220 compute sled
or a power sled blank must be mounted into
the adjacent sled bay.
NOTE: The sled bays must always be
populated with either a sled or a sled blank
to ensure proper system cooling.
About the System
13
Item
Feature
Icon
Description
11
Chassis status
indicator
Indicates the power and health status of
the whole system.
12
Chassis
identification
indicator
Lights blue when the chassis ID signal is
generated.
13
14
Thermal sensor
Monitors the inlet ambient temperature.
Embedded 10/100 Mbit NIC connector.
Ethernet connector
15
NIC link/activity
indicator
Indicates state of the network link and
activity.
14
About the System
Back-Panel Features and Indicators
Figure 1-2. Back-Panel Features and Indicators — Server Enclosure with Internal
Power Source
1
2
10
9
8
7
6
5
4
3
2
Item
Feature
Icon
Description
1
2
Fan modules
Provides cooling solution to the enclosure.
AC power sockets
Connect the power cables to these power
sockets. When connected to a power
source, main power is automatically
distributed to the enclosure.
NOTE: Always connect the enclosure's AC
power sockets to a single power source,
switch, or PDU.
NOTE: Before installing a compute or
storage sled to the front of the enclosure,
install the power sleds and connect power to
the enclosure.
3, 4, 5 Fan fault indicators
1 to 6
Indicates the function status of the system
fans.
About the System
15
Item
Feature
Icon
Description
6
Service mode
button
Press this button within 4 seconds to enter
service mode.
7
8
9
External PDU
connector
Connects to a PDU control connector.
Dedicated management port.
BMC management
port
Chassis
identification
indicator
Lights blue when the chassis ID signal is
generated.
10
Power/event
indicator
Indicates the power and health status of the
enclosure.
Figure 1-3. Back-Panel Features and Indicators — Server Enclosure with External
Power Source
1
10
9
8
7
6
5
4
3
2
16
About the System
Item
Feature
Icon
Description
1
Fan modules
Provides cooling solution to the enclosure.
2, 3, 4 Fan fault indicators
1 to 6
Indicates the function status of the system
fans.
5
Service mode
button
Press this button within 4 seconds to enter
service mode.
6
7
8
External PDU
connector
Connects to a PDU control connector.
Dedicated management port.
BMC management
port
Chassis
identification
indicator
Lights blue when the chassis ID signal is
generated.
9
Power/event
indicator
Indicates the power and health status of the
enclosure.
10
DC power socket
Connect the DC power cable to this power
socket. When connected to an external
PDU, main power is automatically
distributed to the enclosure.
NOTE: Always connect the enclosure's DC
power socket to a PDU.
NOTE: Before installing a compute or
storage sled to the front of the enclosure,
connect power to the enclosure.
About the System
17
Server Enclosure Indicator Codes
The indicators on the front and back of the server enclosure displays
operational status of the enclosure, fan modules, and chassis controller
boards.
Figure 1-4. Server Enclosure Front-Panel Indicators
Item Indicator
Color
Status
Indicator Code
1
Chassis status
indicator
Green
Solid
Indicates a valid power source is
connected to the server enclosure
and that the enclosure is
operational.
Off
Off
Power is not connected.
Amber
Blue
Blinking Indicates a fault event occurred.
2
3
Chassis
identification
indicator
Blinking Indicates a chassis ID signal is
generated.
Blue
Off
Chassis ID signal is not generated.
NIC link/activity Green
indicator
Solid
Linking at 100 Mbps speed
(maximum).
Green
Off
Blinking Transmit or receive activity.
Off No activity.
18
About the System
Figure 1-5. Server Enclosure Back-Panel Indicators
1
2
3
4
5
Item
Indicator
Color
Status
Indicator Code
1
Power/event
indicator
Green
Solid
Indicates a valid power source is
connected to the server enclosure
and that the enclosure is
operational and power is applied to
the fan controller board.
Green
Blinking Power is connected to the
enclosure but the managed devices’
or sleds’ power is off.
Amber
Off
Blinking Indicates a fault event occurred.
Off
Power is not connected.
2
3
4
Chassis
identification
indicator
Blue
Blinking Indicates a chassis ID signal is
generated.
Blue
Off
Chassis ID signal is not generated.
Fan 1 and 2
fault indicator
Amber
Blinking Indicates a fault event occurred in
fans 1 and 2.
Off
Off
Fans 1 and 2 are operational.
Fan 3 and 4
fault indicator
Amber
Blinking Indicates a fault event occurred in
fans 3 and 4.
Off
Off
Fans 3 and 4 are operational.
About the System
19
Item
Indicator
Color
Status
Indicator Code
5
Fan 5 and 6
fault indicator
Amber
Blinking Indicates a fault event occurred in
fans 5 and 6.
Off
Off
Fans 5 and 6 are operational.
NIC Indicator Codes
Figure 1-6. NIC Indicators (Front-Panel Ethernet Connector)
1
link indicator
2
activity indicator
Indicator
Status
Indicator Code
Link indicator Solid amber
Solid green
Linking at 10 Mbps port speed
Linking at 100 Mbps port speed (maximum)
No activity
Activity
Solid green
Blinking green
Off
indicator
Transmit or receive activity
Idle
20
About the System
Figure 1-7. NIC Indicators (BMC management port)
1
link indicator
2
activity indicator
Indicator
Status
Indicator Code
Link indicator Blinking amber Linking at 10 Mbps port speed
Blinking green
Solid green
Blinking green
Off
Linking at 100 Mbps port speed (maximum)
Activity
indicator
No activity
Transmit or receive activity
Idle
About the System
21
Sled Bay Numbering
The front of the server enclosure is divided into ten vertical bays. A C8220
single-wide compute sled occupies one sled bay in the server enclosure and a
C8220X double-wide compute sled or C8000XD storage sled occupies two
sled bays in the server enclosure. When installing a sled module into the
server enclosure, you should install the sled module in sled bay 1 first, then
work toward the right of the enclosure.
Figure 1-8. Sled Bay Numbering
Sled Bays
Sled module type
a
a
1
2
3
4
5
6
7
8
9
10
C8220 single-wide
compute sled
C8220X double-wide
compute sled
b
C8000XD storage
sled
c
Power sled
a. Sled bays 5 and 6 support installation of two power sleds or two C8220 compute sleds or a
combination of the two sled types.
b. For server enclosure with internal power source, install C8000XD storage sleds in sled bays 3 to 10
only.
c. Install power sleds in sled bays 5 and 6 only.
22
About the System
Fan Bay Numbering
The back of the PowerEdge C8000 server enclosure includes three hot-
swappable fan modules that provide the system with a redundant cooling
source. Each fan module contains two cooling fans. All three fan modules
must be installed at all times to ensure proper cooling.
Figure 1-9. Fan Bay Numbering
Fan Bay
Cooling Fans
Fan 2
Fan module 1
Fan 1
Fan module 2
Fan module 3
Fan 4
Fan 3
Fan 6
Fan 5
About the System
23
Figure 1-12. Mixed Sleds — Server Enclosure with Internal Power Source
Figure 1-13. Mixed Sleds — Server Enclosure with External Power Source
About the System
25
Sled Features
Compute Sleds
The PowerEdge C8000 server enclosure holds up to ten single-wide compute
sleds or five double-wide compute sleds. Each compute sled is equivalent to a
standard server built with a processor(s), memory, network interface,
baseboard management controller, and local hard-drive storage.
Single-Wide Compute Sled
Figure 1-14. Sled Features — C8220 Single-Wide Compute Sled
Item
Indicator, Button, or
Connector
Icon
Description
1
2
3
USB connectors
Connects USB devices to the sled. The
ports are USB 2.0 compliant.
Mezzanine card
expansion slot
Installs an I/O module mezzanine card.
Low profile PCIe
expansion slot
Installs a low profile PCI Express x16 card.
26
About the System
Item
Indicator, Button, or
Connector
Icon
Description
4
5
Release latch
Press to release the sled from the enclosure.
Power-on indicator/
power button
The power-on indicator lights when the
sled power is on. The power-on indicator
lights amber when the system critical event
occurs.
NOTE: The power-on indicator lights amber
according to critical system error log (SEL)
assertion. If the SEL is full or a deassertion
event occurred while sensor monitoring is
paused (e.g. fan monitoring is paused during
system power off), the power-on indicator
turns amber. To turn off an amber LED and
reset the power-on indicator to normal
condition (solid green), either perform a
BMC cold reset or reseat the sled in the
server enclosure.
The power button turns the compute
sled on.
NOTES:
• When powering on the sled, the video
monitor can take from several seconds
to over 2 minutes to display an image,
depending on the amount of memory
installed in the system.
• On ACPI-compliant operating systems,
turning off the sled using the power
button causes the sled to perform a
graceful shutdown before power to the
sled is turned off.
• To force an ungraceful shutdown, press
and hold the power button for five
seconds.
About the System
27
Item
Indicator, Button, or
Connector
Icon
Description
6
7
8
VGA connector
Serial connector
Connects a VGA display to the system.
Connects a serial device to the system.
Dedicated management port.
BMC management
port
9
Ethernet connector 2
Embedded 10/100/1000 Mbit NIC
connector.
2
1
10
11
12
Ethernet connector 1
Embedded 10/100/1000 Mbit NIC
connector.
Sled identification
indicator
Lights blue to identify a particular sled and
system board.
Handle
Hold to pull the sled from the enclosure.
28
About the System
Double-Wide Compute Sled
The C8220X double-wide compute sled includes two types of configuration,
a double-wide compute sled with front-access 2.5-inch hot-plug hard-drives
and a double-wide compute sled with general-purpose graphics processing
unit (GPGPU).
Figure 1-15. Sled Features — C8220X Double-Wide Compute Sled with Front-Access
Hot-Plug Hard-Drives
Item
Indicator, Button, or
Connector
Icon
Description
1
2
3
USB connectors
Connects USB devices to the sled. The
ports are USB 2.0 compliant.
Mezzanine card
expansion slot
Installs an I/O module mezzanine card.
Hard-drive indicators
0 to 7
Indicates drive activity and status.
4, 5
6, 7
Hard-drive bay
Installs two 2.5-inch hot-plug hard-drives.
Low profile PCIe
expansion slots
Installs up to two low profile PCI Express
x8 card when plugged into horizontal
expansion card connectors.
About the System
29
Item
Indicator, Button, or
Connector
Icon
Description
8
9
Sled release latch
Press to release the sled from the
enclosure.
Power-on indicator/
power button
The power-on indicator lights when the
sled power is on.The power-on indicator
lights amber when the system critical
event occurs.
NOTE: The power-on indicator lights amber
according to critical system error log (SEL)
assertion. If the SEL is full or a deassertion
event occurred while sensor monitoring is
paused (e.g. fan monitoring is paused during
system power off), the power-on indicator
turns amber. To turn off an amber LED and
reset the power-on indicator to normal
condition (solid green), either perform a
BMC cold reset or reseat the sled in the
server enclosure.
The power button turns the compute sled
on.
NOTES:
• When powering on the sled, the video
monitor can take from several seconds
to over 2 minutes to display an image,
depending on the amount of memory
installed in the system.
• On ACPI-compliant operating
systems, turning off the sled using the
power button causes the sled to
perform a graceful shutdown before
power to the sled is turned off.
• To force an ungraceful shutdown, press
and hold the power button for five
seconds.
10
11
VGA connector
Serial connector
Connects a VGA display to the system.
Connects a serial device to the system.
30
About the System
Item
12
Indicator, Button, or
Connector
Icon
Description
BMC management
port
Dedicated management port.
13
Ethernet connector 2
Embedded 10/100/1000 Mbit NIC
connector.
2
1
14
Ethernet connector 1
Embedded 10/100/1000 Mbit NIC
connector.
15
Sled identification
indicator
Lights blue to identify a particular sled
and system board.
16
Handle
Hold to pull the sled from the enclosure.
Figure 1-16. Sled Features — C8220X Double-Wide Compute Sled with GPGPU
2
1
12
11
10
9
8
7
6
5
4
3
Item
1
Indicator, Button, or Icon
Connector
Description
USB connectors
Connects USB devices to the sled. The ports
are USB 2.0 compliant.
2
Mezzanine card
expansion slot
Installs an I/O module mezzanine card.
About the System
31
Item
Indicator, Button, or Icon
Connector
Description
3
Sled cover/ GPGPU
card assembly
Installs up to two GPGPU cards when
plugged into horizontal GPGPU card risers.
4
5
Sled release latch
Press to release the sled from the enclosure.
Power-on indicator/
power button
The power-on indicator lights when the sled
power is on.The power-on indicator lights
amber when the system critical event occurs.
NOTE: The power-on indicator lights amber
according to critical system error log (SEL)
assertion. If the SEL is full or a deassertion
event occurred while sensor monitoring is
paused (e.g. fan monitoring is paused during
system power off), the power-on indicator turns
amber. To turn off an amber LED and reset the
power-on indicator to normal condition (solid
green), either perform a BMC cold reset or
reseat the sled in the server enclosure.
The power button turns the compute sled on.
NOTES:
• When powering on the sled, the video
monitor can take from several seconds to
over 2 minutes to display an image,
depending on the amount of memory
installed in the system.
• On ACPI-compliant operating systems,
turning off the sled using the power
button causes the sled to perform a
graceful shutdown before power to the
sled is turned off.
• To force an ungraceful shutdown, press
and hold the power button for five
seconds.
6
7
VGA connector
Serial connector
Connects a VGA display to the system.
Connects a serial device to the system.
32
About the System
Item
8
Indicator, Button, or Icon
Connector
Description
BMC management
port
Dedicated management port.
9
Ethernet connector
2
Embedded 10/100/1000 Mbit NIC connector.
Embedded 10/100/1000 Mbit NIC connector.
2
1
10
11
12
Ethernet connector
1
Sled identification
indicator
Lights blue to identify a particular sled and
system board.
Handle
Hold to pull the sled from the enclosure.
About the System
33
Storage Sleds
The C8000XD storage sled is a direct attached storage for the server
enclosure. The storage sled provides dedicated data storage to a C8220X sled
or C8220 sled. Each storage sled supports up to a maximum of 12 x 3.5-inch/
2.5-inch hard-drives or 24 x 2.5-inch SSD hard-drives.
Figure 1-17. Sled Features — C8000XD Storage Sled
1
11
2
3
4
5
6
7
8
10
9
Item
Indicator, Button, or
Connector
Icon
Description
1
2
3
Handle
Hold to pull the hard-drive cage from the
sled.
Mini-SAS connector A2
Mini-SAS connector A1
Connects to a compute sled’s host bus
adapter (HBA) or RAID controller card.
Connects to a compute sled’s HBA or
RAID controller card.
34
About the System
Item
Indicator, Button, or
Connector
Icon
Description
4, 8
Sled power/status
indicator
The power-on indicator lights green
when the sled power is on and power is
applied to the SAS expander board.
The power-on indicator alternately lights
green and blinks amber when a critical
event occurs.
5, 9
6
Sled identification
indicator
Lights blue to identify a particular mini-
SAS connector and sled.
Mini-SAS connector B2
Mini-SAS connector B1
Sled release tab
Connects to a compute sled’s HBA or
RAID controller card.
7
Connects to a compute sled’s HBA or
RAID controller card.
10
11
Press to release the sled from the
enclosure.
Hard-drive cage release
latch
Press to release the hard-drive cage from
the sled.
About the System
35
Power Sleds
You can install up to two hot-swappable power sleds in the server enclosure
that supports internal power source. Each power sled installs up to two
1400 W power supply modules that are capable of delivering 2800 W power
to the server enclosure at an input range of 200-240 V.
Figure 1-18. Sled Features — Power Sled
36
About the System
Item
Indicator, Button, or Icon
Connector
Description
1
PSU1/3 status
indicator
The PSU1/3 status indicator lights green
indicating that a valid power source is
connected to the power supply and that
power supply is operational.
The PSU1/3 status indicator lights amber
indicating a problem with the PSU module.
• PSU module fan locked (15 s)
• PSU module over temperature protection
(OTP)
• PSU module over current protection
(OCP)
• PSU module over voltage protection
(OVP)
• PSU module under voltage protection
(UVP)
2
PSU2/4 status
indicator
The PSU2/4 status indicator lights green
indicating that a valid power source is
connected to the power supply and that
power supply is operational.
The PSU2/4 status indicator lights amber
indicating a problem with the PSU module.
• PSU module fan locked (15 s)
• PSU module over temperature protection
(OTP)
• PSU module over current protection
(OCP)
• PSU module over voltage protection
(OVP)
• PSU module under voltage protection
(UVP)
3
4
Handle
Hold to pull the sled from the enclosure.
Press to release the sled from the enclosure.
Release latch
About the System
37
Figure 1-22. Service Tag Location for C8220X Double-Wide Compute Sled with 2.5-inch
(8-Drive Bay) Hard-Drives
Figure 1-23. Service Tag Location for C8220X Double-Wide Compute Sled with GPGPU
40
About the System
Figure 1-24. Service Tag Location for C8000XD Storage Sled
About the System
41
POST Error Codes
Collecting System Event Log for Investigation
Whenever possible, the system BIOS will output the current boot progress
codes on the video screen. Progress codes are 32-bit quantities plus optional
data. The 32-bit numbers include class, subclass, and operation information.
The class and subclass fields point to the type of hardware that is being
initialized. The operation field represents the specific initialization activity.
Based on the data bit availability to display progress codes, a progress code
can be customized to fit the data width. The higher the data bit, the higher
the granularity of information that can be sent on the progress port. The
progress codes may be reported by the system BIOS or option ROMs.
The Response section in the following table may be divided into 3 types:
•
•
•
Warning or Not an error – The message is displayed on the screen. An error
record is logged to the SEL. The system will continue booting with a
degraded state. The user may want to replace the erroneous unit.
Pause – The message is displayed on the screen, an error is logged to the
SEL, and user input is required to continue. The user can take immediate
corrective action or choose to continue booting.
Halt – The message is displayed on the screen, an error is logged to the
SEL, and the system cannot boot unless the error is resolved. The user
needs to replace the faulty part and restart the system.
Error
Code
Error Message
Response Error Cause
Corrective Actions
0010h Local Console
Resource
Pause
Pause
Video device
initialization
failed
See "Troubleshooting the
Video Subsystem" on
page 252.
Conflict
If the problem persists, see
"Getting Help" on page 289.
0011h Local Console
Controller Error
Video device
initialization
failed
See "Troubleshooting the
Video Subsystem" on
page 252.
If the problem persists, see
"Getting Help" on page 289.
42
About the System
Error
Code
Error Message
Response Error Cause
Corrective Actions
0012h Local Console
Output Error
Pause
Video device
initialization
failed
See "Troubleshooting the
Video Subsystem" on
page 252.
If the problem persists, see
"Getting Help" on page 289.
0013h ISA IO
Controller Error
Pause
ISA device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
0014h ISA IO Resource Pause
Conflict
ISA device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
0015h ISA IO
Controller Error
Pause
ISA device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
0016h ISA Floppy
Controller Error
Pause
Pause
Pause
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
0017h ISA Floppy
Input Error
Floppy device See "Troubleshooting a USB
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
0018h ISA Floppy
Output Error
Floppy device See "Troubleshooting a USB
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
About the System
43
Error
Code
Error Message
Response Error Cause
Corrective Actions
0019h USB Read Error Pause
USB port
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
001Ah USB Write Error Pause
USB port
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
001Bh USB Interface
Error
Pause
USB port
initialization
failed
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
001Ch Mouse Interface Pause
Error
Mouse device To enable USB device, see
initialization
failed
"USB Configuration" on
page 105.
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
001Eh Keyboard Not
Detected
Pause
Pause
No keyboard
detected
"USB Configuration" on
page 105.
See "Troubleshooting a USB
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
001Fh Keyboard
Controller Error
Keyboard
controller
initialization
failed
See "Troubleshooting a USB
Device" on page 252.
If the problem persists, see
"Getting Help" on page 289.
44
About the System
Error
Code
Error Message
Response Error Cause
Corrective Actions
0020h Keyboard Stuck Pause
Key Error
Keyboard key Disconnect and reconnect the
stuck
keyboard to the compute sled.
If the problem persists, see
"Getting Help" on page 289.
0021h Keyboard
Locked Error
Pause
Pause
Keyboard
locked
Disconnect and reconnect the
keyboard to the compute sled.
If the problem persists, see
"Getting Help" on page 289.
0023h Memory
Correctable
Memory
correctable
Remove AC power to the
system for 10 seconds and
Error
error detected restart the system.
Memory" on page 267.
If the problem persists, see
"Getting Help" on page 289.
0024h Memory
Pause
Pause
Memory
Uncorrectable
Error
uncorrectable Memory" on page 267.
error detected
If the problem persists, see
"Getting Help" on page 289.
0025h Memory Non-
Specific Error
specific error
detected
Memory" on page 267.
If the problem persists, see
"Getting Help" on page 289.
0026h MP Service Self Pause
Test Error
MP service self See "Troubleshooting
test error
detected
Processors" on page 270.
If the problem persists, see
"Getting Help" on page 289.
0027h PCI IO
Controller Error
Pause
PCI device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
About the System
45
Error
Code
Error Message
Response Error Cause
Corrective Actions
0028h PCI IO Read
Error
Pause
PCI device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
0029h PCI IO Write
Error
Pause
PCI device
initialization
failed
See "Troubleshooting
Expansion Cards" on
page 270.
If the problem persists, see
"Getting Help" on page 289.
002Ah Serial Port Not Pause
Detected
Serial device
initialization
failed
I/O Device" on page 253.
If the problem persists, see
"Getting Help" on page 289.
002Bh Serial Port
Controller Error
Pause
Serial device
initialization
failed
I/O Device" on page 253.
If the problem persists, see
"Getting Help" on page 289.
002Ch Serial Port Input Pause
Error
Serial device
initialization
failed
See "Troubleshooting a Serial
I/O Device" on page 253.
If the problem persists, see
"Getting Help" on page 289.
002Dh Serial Port
Output Error
Pause
Pause
Serial device
initialization
failed
See "Troubleshooting a Serial
I/O Device" on page 253.
If the problem persists, see
"Getting Help" on page 289.
002Eh Microcode
Update Error
Processor
microcode
update error
Check microcode. A BIOS
update is required.
If the problem persists, see
"Getting Help" on page 289.
46
About the System
Error
Code
Error Message
Response Error Cause
Pause Processor
Corrective Actions
002Fh No Microcode
Be Updated
Ensure that your processors
microcode load match and conform to the
failed
type described in the
processor technical
specifications outlined in
your system’s Getting Started
Guide.
8012h SATA 0 Device Pause
Not Found
SATA 0 device Check if the SATA port 0 is
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 0.
If the problem persists, see
"Getting Help" on page 289.
8013h SATA 1 Device Pause
Not Found
SATA 1 device Check if the SATA port1 is
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 1.
If the problem persists, see
"Getting Help" on page 289.
8014h SATA 2 Device Pause
Not Found
SATA 2 device Check if the SATA port 2 is
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 2.
If the problem persists, see
"Getting Help" on page 289.
8015h SATA 3 Device Pause
Not Found
SATA 3 device Check if the SATA port 3 is
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 3.
If the problem persists, see
"Getting Help" on page 289.
About the System
47
Error
Code
Error Message
Response Error Cause
Corrective Actions
8016h SATA 4 Device Pause
Not Found
SATA 4 device Check if the SATA port 4 is
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 4.
If the problem persists, see
"Getting Help" on page 289.
8017h SATA 5 Device Pause
Not Found
not found
enabled. See "SATA
Configuration" on page 95.
Install a SATA device to SATA
port 5.
If the problem persists, see
"Getting Help" on page 289.
8018h Sparing Mode is Pause
not be
Memory
Check if the memory
Failed
Configured!!,
mode. See "Memory
Please check
Configuration" on page 92.
Memory
Configuration!!
If the problem persists, see
"Getting Help" on page 289.
8019h Mirror Mode is Pause
not be
MemoryMirror Check if the memory
Configured!!,
mode. See "Memory
Please check
Configuration" on page 92.
Memory
Configuration!!
If the problem persists, see
"Getting Help" on page 289.
8020h Supervisor and Pause
User Passwords
have been
Supervisor and Reset password. See the
User Passwords compute sled’s
have been
cleared
documentation for more
information.
cleared
If the problem persists, see
"Getting Help" on page 289.
48
About the System
Error
Code
Error Message
Response Error Cause
Corrective Actions
8021h CMOS Battery Pause
Error
No CMOS
battery
See the compute sled’s
documentation for more
information.
8100h Memory device Pause
Memory
Device Error
See "Troubleshooting System
Memory" on page 267.
disabled by
BIOS
If the problem persists, see
"Getting Help" on page 289.
About the System
49
System Event Log
Processor Error
Message: “Processor Sensor, IERR error, Processor 1”
Table 1-1. Processor Error
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
07h
04h
Processor
Sensor Number
Processor Sensor Number
(depends on platform)
7
8
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event Bit 6: 0 =
Event Type Code
Event Data1
AXh
00h: IERR 01h: Thermal Trip
02h: FRB1/BIST Failure
03h: FRB2/Hang in POST Failure
04h: FBR3/Processor
Startup/Initialization Failure
0Ah: Processor Automatically
Throttled
9
Event Data2
Event Data3
XXh
FFh
00h: Processor1
01h: Processor2
02h: Processor3
04h: Processor4
FFh: Not Present
10
50
About the System
Memory Ecc
Message: “Memory Sensor, Correctable ECC error, SBE warning threshold,
CPU1 DIMM_A1”
Table 1-2. Memory ECC
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
0Ch
60h
Memory
Sensor Number
Memory Sensor Number (depend
on platform)
7
8
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event
Bit 6: 0 = Event Type Code
00h: Correctable ECC Error
01h: Uncorrectable ECC Error
03h: Memory Scrub Failed
04h: Memory Device Disabled
08h: Spare
Event Data1
AXh
About the System
51
Table 1-2. Memory ECC
Byte
Field
Value
Description
9
Event Data2
XXh
Bit 7:4
0x00: SBE warning threshold
0x01: SBE critical threshold
0x0F: Unspecified
Bit 3:0
0x00: CPU1 DIMM A1-8 slots
(1~8)
0x01: CPU2 DIMM B1-8 slots
(9~16)
0x02: CPU3 DIMM C1-8 slots
(17~24)
0x03: CPU4 DIMM D1-8 slots
(25~32) And so on…
10
Event Data3
XXh
DIMM bit-map location of bits
Bit 0=1: DIMM1 error event
Bit 1=1: DIMM2 error event …
Bit7=1: DIMM8 error event
52
About the System
PCIe Error
Message: “Critical Interrupt Sensor, PCI PERR, Device#, Function#,
Bus#”
Table 1-3. PCIe Error
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
13h
73h
Critical Interrupt
Sensor Number
PCI Sensor ID (depend on
platform)
7
8
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event
Bit 6: 0 = Event Type Code
04h: PCI PERR
Event Data1
AXh
05h: PCI SERR
07h: Bus Correctable Error
08h: Bus Uncorrectable Error
0Ah: Bus Fatal Error
9
Event Data2
Event Data3
XXh
XXh
Bit 7:3Device Number
Bit 2:0Function Number
Bit 7:0 Bus Number
10
About the System
53
IOH Core Error
Message: “Critical Interrupt Sensor, Fatal Error, xxxx bit, QPI[0] Error”
Table 1-4. IOH Core Error
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
C0h
XXh
OEM Defined Interrupt
Sensor Number
71h: QPI Sensor ID (depend on
platform)
72h: INT Sensor ID (depend on
platform)
7
8
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event Bit 6: 0 =
Event Type Code
Event Data1
AXh
07h: Core
08h: Non-Fatal
0Ah: Fatal
9
Event Data2
Event Data3
XXh
XXh
Local Error Bit
10
00h: QPI[0] Error
01h: QPI[1] Error
02h: QPI[2] Error
03h: QPI[3] Error
04h: QPI[0] Protocol Error
05h: QPI[1] Protocol Error
06h: QPI[2] Protocol Error
07h: QPI[3] Protocol Error
23h: Miscellaneous Error
24h: IOH Core Error
54
About the System
SB Error
Message: “Critical Interrupt Sensor, Correctable, MCU Parity Error”
Table 1-5. SB Error
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
13h
77h
Critical Interrupt
Sensor Number
SB Sensor ID (depend on
platform)
7
8
9
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event
Bit 6: 0 = Event Type Code
07h: Correctable
Event Data1
Event Data2
AXh
XXh
08h: Uncorrectable
Bit 7:5Reserved Local error bit
number (4 ~ 0)
00000b: HT Periodic CRC Error
00001b: HT Protocol Error
00010b: HT Flow-Control Buffer
Overflow
00011b: HT Response Error
00100b: HT Per-Packet CRC Error
00101b: HT Retry Counter Error
00111b: MCU Parity Error
FFh: Not Present
10
Event Data3
FFh
About the System
55
POST Start Event
Message: “System Event, POST starts with BIOS xx.xx.xx”
Table 1-6. POST Start Event
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
7
Sensor Type
12h
81h
System Event
Sensor Number
POST Start (depend on platform)
Bit 7: 0 = Assert Event
Event Direction Event Type 6Fh
Bit 6: 0 = Event Type Code
01h: OEM System Boot Event
8
9
Event Data1
Event Data2
AXh
XXh
7~4: BIOS 1st Field Version
(0~15)
3~0: BIOS 2nd Field Version
higher 4bits (0~63)
10
Event Data3
XXh
7~6: BIOS 2nd Field Version lower
2bits (0~63)
5~0: BIOS 3rd Field Version
(0~63)
56
About the System
POST End Event
Table 1-7. POST End Event
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
7
Sensor Type
12h
85h
System Event
Sensor Number
POST End (depend on platform)
Bit 7: 0 = Assert Event
Bit 6: 0 = Event Type Code
01h: OEM System Boot Event
Bit 7 = Boot Type
Event Direction Event Type 6Fh
8
9
Event Data1
Event Data2
AXh
XXh
0b: PC Compatible Boot
(Legacy) 1b: uEFI Boot
Bit 3:0 = Boot Device
0001b: Force PXE Boot
0010b: NIC PXE Boot
0011b: Hard Disk Boot
0100b: RAID HDD Boot
0101b: USB Storage Boot
0111b: CD/DVD ROM Boot
1000b: iSCSI Boot
1001b: uEFI Shell
1010b: ePSA Diagnostic Boot
FFh: Not Present
10
Event Data3
FFh
About the System
57
POST Error Code Event
Message: “System Firmware Progress, POST error code: UBLBh.”
Table 1-8. POST Error Code Event
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
7
Sensor Type
0Fh
86h
System Firmware Progress
POST Error (depend on platform)
Bit 7: 0 = Assert Event
Sensor Number
Event Direction Event Type 6Fh
Bit 6: 0 = Event Type Code
8
Event Data1
AXh
00: System Firmware Error (POST
Error)
9
Event Data2
Event Data3
XXh
XXh
Upper Byte
Lower Byte
10
58
About the System
BIOS Recovery Event
Table 1-9. BIOS Recovery Event
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
12h
89h
System Event
Sensor Number
BIOS Recovery fail (depend on
platform)
7
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event Bit 6: 0 =
Event Type Code
8
9
Event Data1
Event Data2
AXh
XXh
01h: OEM BIOS recovery Event
01h:Start Recovery
02h:Recovery Success
03h:Load Image Fail
04h:Signed Fail
10
Event Data3
FFh
FFh: Not Present
ME Fail Event
Table 1-10. BIOS Recovery Event
Byte
Field
Value
10h
02h
01h
04h
Description
1
2
3
4
NetFunLun
Platform Event Command
Generator ID
Generated by BIOS
Event Message Format
Version
Event Message Format Revision.
04h for this specification
5
6
Sensor Type
12h
8Ah
System Event
Sensor Number
ME fail (depend on platform)
About the System
59
Table 1-10. BIOS Recovery Event
Byte
Field
Value
Description
7
Event Direction Event Type 6Fh
Bit 7: 0 = Assert Event
Bit 6: 0 = Event Type Code
01h: OEM ME fail Event
01h:ME fail
8
Event Data1
Event Data2
Event Data3
AXh
XXh
FFh
9
10
FFh: Not Present
SEL Generator ID
Table 1-11. SEL Generator ID
Generator ID
BIOS
0x0001
0x0020
0x002C
0x0137
BMC
ME
Windows 2008
60
About the System
BMC
The following table includes an overview of the system sensors.
In the Offset column:
•
•
•
•
•
•
SI = Sensor Initialization
SC = Sensor Capabilities
AM = Assertion Mask
DM = Deassertion Mask
RM = Reading Mask
TM = Settable/Readable Threshold Mask
Table 1-12. Sensor Summary
Sensor Sensor Name
Number
Sensor Type
Event/Reading Type Offset
01h
02h
03h
SEL Fullness
Event Logging
Disabled (10h)
Sensor-specific
(6Fh)
SI: 67h
SC: 40h
AM: 0035h
DM: 0000h
RM: 0035h
SI: 01h
P1 Thermal Trip Processor (07h)
P2 Thermal Trip Processor (07h)
Sensor-specific
(6Fh)
SC: 40h
AM: 0002h
DM: 0000h
RM: 0002h
SI: 01h
Sensor-specific
(6Fh)
SC: 40h
AM: 0002h
DM: 0000h
RM: 0002h
About the System
61
Table 1-13. Sensor Summary (continued)
Sensor Sensor Name
Number
Sensor Type
Event/Reading Type Offset
04h
05h
06h
07h
08h
CPU ERR2
12V Standby
5V
Processor (07h)
Sensor-specific
(6Fh)
SI: 01h
SC: 40h
AM: 0001h
DM: 0000h
RM: 0001h
SI: 7Fh
Voltage (02h)
Voltage (02h)
Voltage (02h)
Voltage (02h)
Threshold (01h)
Threshold (01h)
Threshold (01h)
Threshold (01h)
SC: 59h
AM: 7A95h
DM: 7A95h
TM: 3F3Fh
SI: 7Fh
SC: 59h
AM: 7A95h
DM: 7A95h
TM: 3F3Fh
SI: 7Fh
5V Standby
SC: 59h
AM: 7A95h
DM: 7A95h
TM: 3F3Fh
SI: 7Fh
3.3V
SC: 59h
AM: 7A95h
DM: 7A95h
TM: 3F3Fh
62
About the System
Table 1-14. Sensor Summary (continued)
Sensor Sensor Name
Number
Sensor Type
Event/Reading Type Offset
09h
0Ah
41h
41h
42h
3.3V Standby
Voltage (02h)
Threshold (01h)
SI: 7Fh
SC: 59h
AM: 7A95h
DM: 7A95h
TM: 3F3Fh
SI: 67h
Battery low
Battery (29h)
Sensor-specific
(6Fh)
SC: 40h
AM: 0001h
DM: 0000h
RM: 0001h
SI: 7Fh
MEZZ1 TEMP Temperature (01h) Threshold (01h)
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
SI: 7Fh
CPU1 Temp
CPU2 Temp
Temperature (01h) Threshold (01h)
Temperature (01h) Threshold (01h)
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
SI: 7Fh
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
About the System
63
Table 1-15. Sensor Summary (continued)
Sensor Sensor Name
Number
Sensor Type
Event/Reading Type Offset
43h
44h
45h
60h
A0h
DIMM ZONE 1 Temperature (01h) Threshold (01h)
Temp
SI: 7Fh
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
SI: 7Fh
DIMM ZONE 1 Temperature (01h) Threshold (01h)
Temp
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
SI: 7Fh
PCH Temp
Memory
Temperature (01h) Threshold (01h)
SC: 68h
AM: 0A80h
DM: 0A80h
TM: 3838h
SI: 01h
Memory (0Ch)
Sensor-specific
(6Fh)
SC: 40h
AM: 0023h
DM: 0000h
RM: 0023h
SI: 67h
Watchdog
Watchdog 2 (23h) Sensor-specific
(6Fh)
SC: 40h
AM: 000Fh
DM: 0000h
RM: 000Fh
64
About the System
Table 1-16. Sensor Summary (continued)
Sensor Sensor Name
Number
Sensor Type
Event/Reading Type Offset
A1h
A2h
A3h
Soft Reset
System Boot/
Restart Initiated
(1Dh)
Sensor-specific
(6Fh)
SI: 01h
SC: 40h
AM: 0004h
DM: 0000h
RM: 0004h
SI: 01h
AC lost
Power Unit (09h)
Power Unit (09h)
Sensor-specific
(6Fh)
SC: 40h
AM: 0010h
DM: 0000h
RM: 0010h
SI: 01h
Power off
Sensor-specific
(6Fh)
SC: 40h
AM: 0002h
DM: 0000h
RM: 0002h
About the System
65
Other Information You May Need
WARNING: See the safety and regulatory information that shipped with your
system. Warranty information may be included within this document or as a
separate document.
•
•
The Getting Started Guide provides an overview of rack installation,
system features, setting up your system, and technical specifications.
The compute or storage sleds’ documentation provides information about
the sled features, configuring and managing the sled. This document is
available online at dell.com/support/manuals.
•
The Baseboard Management Controller Guide provides information about
installing and using the systems management utility. This document is
available online at dell.com/support/manuals.
NOTE: Always check for updates on dell.com/support/manuals and read the
updates first because they often supersede information in other documents.
66
About the System
2
Using the System Setup Program
The System Setup program is the BIOS program that enables you to manage
your system hardware and specify BIOS-level options. From the System Setup
program, you can:
•
•
•
•
•
Change the NVRAM settings after you add or remove hardware
View the system hardware configuration
Enable or disable integrated devices
Set performance and power management thresholds
Manage system security
System Setup Menu
The system employs the latest Insyde® BIOS, which is stored in Flash
memory. The Flash memory supports the Plug and Play specification, and
contains a System Setup program, the Power On Self Test (POST) routine,
and the PCI auto-configuration utility.
This system supports system BIOS shadowing which enables the BIOS to
execute from 64-bit onboard write-protected DRAM.
You can configure items such as:
•
•
•
Hard-drives and peripherals
Password protection
Power management features
The Setup utility should be executed under the following conditions:
•
•
When changing the system configuration
When a configuration error is detected by the system and you are
prompted to make changes to the Setup utility
•
When redefining the communication ports to prevent any conflicts
Using the System Setup Program
67
•
When changing the password or making other changes to the security
setup
NOTE: Only items in brackets [ ] can be modified, Items that are not in brackets are
display only.
NOTE: PowerEdge C8000 server enclosure is referred to as simply the "server
enclosure" or the "chassis" in this manual.
System Setup Options at Boot
You can initiate Setup by pressing the following keys during POST:
Keystroke
<F2>
Description
Enter the System Setup
Load customized defaults
Load optimal defaults in Setup menu
Save and exit Setup
<F8>
<F9>
<F10>
Using the System Setup Program Navigation Keys
The following table lists the keys found in the legend bar with their
corresponding alternates and functions:
Keys
F1
Function
General Help
Select Screen
Select Item
or
or
Change Option/Field
Select Field
Tab
Esc
Exit
Enter
Home
End
Go to Sub Screen
Go to Top of Screen
Go to Bottom of Screen
Save and Exit
F10
68
Using the System Setup Program
General Help
In addition to the Item Specific Help window, the Setup Utility also provides
a General Help screen. This screen can be called up from any menu by
pressing <F1>. The General Help screen lists the legend keys with their
corresponding alternates and functions. To exit the help window, press
<Enter> or <Esc>.
Console Redirection
The console redirection allows a remote user to diagnose and fix problems on
a server, which has not successfully booted the operating system (OS). The
centerpiece of the console redirection is the BIOS Console. The BIOS
Console is a Flash ROM-resident utility that redirects input and output over
a serial or modem connection.
The BIOS supports console redirection to a serial port. If serial port based
headless server support is provided by the system, the system must provide
support for redirection of all BIOS driven console I/O to the serial port. The
driver for the serial console must be capable of supporting the functionality
documented in the ANSI Terminal Definition.
The console redirection behavior shows a change of string displays that
reduce the data transfer rate in the serial port and cause the absence or an
incomplete POST screen. If you see an abnormal POST screen after you
connect to the console, it is recommended to press <Ctrl><R> to reflash
the screen.
Enabling and Configuring Console Redirection
Console redirection is configured through the System Setup program. There
are three options available to establish console redirection on the system.
•
•
•
External serial port
Internal serial connector as Serial Over LAN (SOL)
BMC SOL
Using the System Setup Program
69
Enabling and Configuring Console Redirection Via COM1
To activate console redirection via COM1, you must configure the following
settings:
1
Connect the serial cable to the serial port and host system. See "Compute
Sleds" on page 26 for the location of the serial port on the sled.
2
Press <F2> immediately after a power-on or reboot to enter System
Setup.
3
4
In the System Setup screen, select the Server menu and press <Enter>.
In the Server screen, select Remote Access Configuration and press
<Enter>.
5
In the Remote Access Configuration screen, verify the following settings:
•
•
•
•
•
•
Remote Access: Enabled
Serial port number: COM1
Serial Port Mode: 115200 8,n,1
Flow Control: None
Redirection After BIOS POST: Always
Terminal Type: ANSI
last four options syncs with the host and client.
6
Press <Esc> to return to the System Setup screen. Press <Esc> again,
and a message prompts you to save the changes.
Enabling and Configuring Console Redirection Via COM2 SOL
To activate console redirection via COM2 SOL, you must configure the
following settings:
1
Connect the serial cable to the serial port and host system. See "Compute
Sleds" on page 26 for the location of the serial port on the sled.
2
Press <F2> immediately after a power-on or reboot to enter System
Setup.
3
4
In the System Setup screen, select the Server menu and press <Enter>.
In the Server screen, select Remote Access Configuration and press
<Enter>.
70
Using the System Setup Program
5
In the Remote Access Configuration screen, verify the following settings:
•
•
•
•
•
•
Remote Access: Enabled
Serial port number: COM2 as SOL
Serial Port Mode: 115200 8, n,1
Flow Control: None
Redirection After BIOS POST: Always
Terminal Type: ANSI
See "Remote Access Configuration" on page 113 for details. Make sure the
host and client are on the same network.
6
Press <Esc> to return to the System Setup screen. Press <Esc> again,
and a message prompts you to save the changes.
Enabling and Configuring Console Redirection Via BMC SOL
connecting and managing servers: Dedicated-NIC mode and Shared-NIC
mode. The following procedures show the setup option of the BMC
management port through a Dedicated-NIC or Shared-NIC.
To activate console redirection via a dedicated BMC management port, you
must configure the following settings:
1
Connect the sled system board and node power distribution board with a
BMC cable.
2
Connect the network cable to the BMC management port. See "Compute
Sleds" on page 26 for the location of the BMC management port on the
sled.
3
Press <F2> immediately after a power-on or reboot to enter System
Setup.
4
5
In the System Setup screen, select the Server menu and press <Enter>.
In the Server screen, select Remote Access Configuration and press
<Enter>.
6
In the Remote Access Configuration screen, verify the following settings:
•
•
Remote Access: Enabled
Serial port number: COM2 as SOL
Using the System Setup Program
71
•
•
•
•
Serial Port Mode: 115200 8, n, 1
Flow Control: None
Redirection After BIOS POST: Always
Terminal Type: ANSI
See "Remote Access Configuration" on page 113 for details. Make sure the
last four options syncs with the host and client.
7
8
In the BMC LAN Configuration screen, verify the following settings:
•
•
BMC LAN Port Configuration: Dedicated-NIC
BMC NIC IP Source: DHCP or Static (Use DHCP if your network
servers are using automatic assignment of IP addresses)
•
•
•
IP Address: 192.168.001.003
Subnet Mask: 255.255.255.000
Gateway Address: 000.000.000.000
host and client are on the same network
9
Press <Esc> to return to the System Setup screen. Press <Esc> again,
and a message prompts you to save the changes.
To activate console redirection via a shared BMC management port, you must
configure the following settings:
1
Connect the sled system board and node power distribution board with a
BMC cable.
2
Connect the network cable to the Ethernet connector 1. See "Compute
Sleds" on page 26 for the location of the Ethernet connector 1 on the
sled.
3
Press <F2> immediately after a power-on or reboot to enter System
Setup.
4
5
In the System Setup screen, select the Server menu and press <Enter>.
In the Server screen, select Remote Access Configuration and press
<Enter>.
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Using the System Setup Program
6
In the Remote Access Configuration screen, verify the following settings:
•
•
•
•
•
•
Remote Access: Enabled
Serial port number: COM2
Serial Port Mode: 115200 8, n, 1
Flow Control: None
Redirection After BIOS POST: Always
Terminal Type: ANSI
See "Remote Access Configuration" on page 113 for details. Make sure the
last four options syncs with the host and client.
7
8
In the BMC LAN Configuration screen, verify the following settings:
•
•
BMC LAN Port Configuration: Shared-NIC
BMC NIC IP Source: DHCP or Static (Use DHCP if your network
servers are using automatic assignment of IP addresses)
•
•
•
IP Address: 192.168.001.003
Subnet Mask: 255.255.255.000
Gateway Address: 000.000.000.000
See "Set BMC LAN Configuration" on page 111 for details. Make sure the
host and client are on the same network
9
Press <Esc> to return to the System Setup screen. Press <Esc> again,
and a message prompts you to save the changes.
Serial Port Connection List
Signal Type Setup Option
OS
Output
Setting
Remote
Access
Serial Port
Number
Serial Port
Address
Serial Console Enabled COM1
3F8h/2F8h ttyS0
2F8h/3F8h ttyS1
Serial Port
Redirection
Enabled COM1
BMC Serial
Over LAN
Enabled COM2 as SOL 3F8h/2F8h ttyS1
Enabled COM2 as SOL 2F8h/3F8h ttyS0
Management
Port
Using the System Setup Program
73
Main Menu
The main menu displays information about your system boards and BIOS.
Main Screen
NOTE: Press <Alt><H> to enter the BIOS debug mode and reset the BIOS to default
settings.
NOTE: The options for the System Setup program change based on the system
configuration.
NOTE: The System Setup program defaults are listed under their respective
options in the following sections, where applicable.
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Using the System Setup Program
System Settings
Option
Description
System Date
Scroll to this item to adjust the date. Use <Enter>,
<Tab> or <Shift><Tab> to select a field. Use [+] or
[-] to configure system date.
System Time
Scroll to this item to adjust the time. Use <Enter>,
<Tab> or <Shift><Tab> to select a field. Use [+] or
[-] to configure system time.
Product Name
BIOS Version
Displays the system product name.
Displays the BIOS version.
NOTE: Check this version number when updating BIOS from
the manufacturer.
BIOS Build Date
Service Tag
Displays the date the BIOS was created.
Displays the system service tag number. The service tag
field should match what is physically on the service tag of
the system.
Asset Tag
Displays the system asset tag number.
MRC Version
Displays the Memory Reference Code (MRC) firmware
version.
ME Version
Displays the Manageability Engine (ME) firmware
version.
BMC Version
Displays the Baseboard Management Controller (BMC)
firmware version.
FAN Control Board FW Displays the Fan Controller Board (FCB) firmware
version.
ePPID
Displays the information from Electronic Piece Part
Identification (ePPID) label.
NIC1 MAC Address
NIC2 MAC Address
Displays the Media Access Control (MAC) address for the
NIC1 connector.
Displays the MAC address for the NIC2 connector.
BMC NIC MAC Address Displays the MAC address of the BMC management port.
Processor Type
Processor Speed
Displays the processor type.
Displays the current speed of the processor.
Using the System Setup Program
75
Option
Description
Processor Core
System Memory Size
Displays the processor core.
Displays total memory size installed on the system board.
System Memory Speed Displays the maximum speed of your system memory.
System Memory Voltage Displays the maximum voltage of your system memory.
76
Using the System Setup Program
Advanced Menu
The advanced menu displays a table of items that defines advanced
information about your system. Scroll to this item and press <Enter> to view
the following screen.
CAUTION: Making incorrect settings to items on these pages may cause the
system to malfunction. Unless you have experience adjusting these items, it is
recommended that you leave these settings at the default values. If making
settings to items on these pages causes your system to malfunction or prevents the
system from booting, open BIOS and choose "Load Optimal Defaults" in the Exit
menu to boot up normally.
Using the System Setup Program
77
Power Management
Scroll to this item and press <Enter> to view the following screen.
Power Management
Option
Description
Power Management
Select a system power management mode.
(OS Control default)
• Maximum Performance: Sets the system power
management to maximum performance.
• OS Control: Allows the operating system to control the
power management.
• Node Manager: Enables Node Manager to moderate
power consumption and performance of the processors in
the compute sled. Node manager delivers power reporting
and power capping functionality for individual compute
sleds.
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Using the System Setup Program
Option
Description
CPU Power Capping
(P-State 0 default)
Select a processor performance state (P-state). Options are
[P-State 0], [P-State 1], [P-State 2], [P-State 3], and
[P-state 4].
NOTE: This option is enabled when Power Management is
set to OS Control mode.
Chassis Power
Management
Press <Enter> to set chassis power management.
This option indicates the different power management
options that control the system power consumption by
processor throttling and power capping.
Energy Efficient Policy Select a power policy option.
(Balanced default)
• Max Performance: Sets the processors at the highest
performance state at all times.
• Balanced: Offers full performance and saves power by
reducing system power consumption during periods of
inactivity.
• Low Power: Use different processor power saving modes
(C-states) to reduce system power consumption.
NOTE: This option works when the OS does not support
power management control of the processor.
Using the System Setup Program
79
Chassis Power Management
Scroll to this item and press <Enter> to view the following screen.
Chassis Power Management
Option
Description
Chassis PSU
Press <Enter> to configure the chassis power supply.
Configuration
This option provides management and monitoring of the
power supplies and the minimum set of requirements that
this server must satisfy.
Power Capping
Press <Enter> to set power capping values.
This option controls system power by node manager
through the processor to limit power consumption in watts
for a sled.
NOTE: The sled’s total power consumption does not include
enclosure fan power energy use. The enclosure fan operates
at a maximum of 280 W of power.
80
Using the System Setup Program
Option
Description
Emergency Throttling
Press <Enter> to configure the compute sled and chassis
emergency throttle functions.
This option sets the policy to take effect when the sled
detects a system emergency failure (such as fan error,
chassis critical power events, PSU critical power events,
abnormal ambient temperature, etc.).
NOTE: The FCB initiates emergency throttling when active
power supplies do not meet the maximum PSU configurations
or when the exhaust temperature control PWM output is
above 100%.
Using the System Setup Program
81
Chassis PSU Configuration
Scroll to this item and press <Enter> to view the following screen.
Chassis PSU Configuration
Option
Description
Required Power Supplies Select the number of power supplies to provide load-shared
(1 default)
power to run the sleds in the enclosure. Options are [1],
[2], [3], and [4].
Redundant Power
Supplies (1 default)
Select the number of power supplies to provide power
redundancy to the enclosure. Options are [0], [1], and [2].
Refer to the Boundaries of PSU Configuration table on page 83 when
changing the configuration of the power supplies to load-shared or redundant
power.
82
Using the System Setup Program
Boundaries of PSU Configuration
PSU Number Required PSU (X)
Redundant PSU (N)
4
4
3
2
2
2
1
0
1
2
1
0
1
3
2
The number of power supplies required for PSU configuration is determined by the following formula:
X + N, where X is the required PSU and N is the redundant PSU.
Using the System Setup Program
83
Power Capping
Scroll to this item and press <Enter> to view the following screens.
Power Capping
Option
Description
Power Budget
Displays the enclosure available power wattage.
It is the summary of each PSU’s capacity (i.e. based on the
number of PSUs and the maximum capacity of each PSU).
Each PSU supports a maximum output wattage of 1100 W
or 1400 W. Power budget in the enclosure must not exceed
2660 W.
The power budget is determined by the following formula,
power budget = (maximum output wattage of the
installed PSU x sum of the PSUs in the enclosure) x 0.95.
For example, in an enclosure with two PSUs the power
budget is (1400 W x 2 PSU) x 0.95 = 2660 W.
84
Using the System Setup Program
Option
Description
Chassis Level Capping Set as chassis level or sled level power capping. (The
(Disabled default)
default setting is referred from BMC). The system
determines the power consumption of the enclosure and
sleds, and constantly attempts to maintain the enclosure’s
power consumption below the cap.
Sled Power Capping
(0 default)
NOTE: This option is enabled when the Chassis Level
Capping is set to Disabled.
The sled’s own power capping infrastructure is able to
determine power consumption of the sleds. When set to 0,
the power capping function is disabled. The minimum
wattage rating should not less than 100 W and the
maximum wattage rating should not be more than the
power budget value. Settings range from 100 to 1000 W.
Using the System Setup Program
85
Power Capping
Option
Description
Power Budget
Displays the enclosure available power wattage.
It is the summary of each PSU’s capacity (i.e. based on the
number of PSUs and the maximum capacity of each PSU).
Each PSU supports a maximum output wattage of 1100 W
or 1400 W. Power budget in the enclosure must not exceed
2660 W.
The power budget is determined by the following formula,
power budget = (maximum output wattage of the
installed PSU x sum of the PSUs in the enclosure) x 0.95.
For example, in an enclosure with two PSUs the power
budget is (1400 W x 2 PSU) x 0.95 = 2660 W.
Chassis Level Capping Set as chassis level or sled level power capping. (The
(Disabled default)
default setting is referred from BMC). The system
determines the power consumption of the enclosure and
sleds, and constantly attempts to maintain the enclosure’s
power consumption below the cap.
Chassis Power Capping NOTE: This option is enabled when the Chassis Level
(0 default)
Capping is set to Enabled.
Determines the power consumption of the chassis. The
minimum wattage rating should not less than 1500 W and
the maximum wattage rating should not be more than the
power budget value. Settings range from 1500 to 9000 W.
86
Using the System Setup Program
Emergency Throttling
Scroll to this item and press <Enter> to view the following screen.
Emergency Throttling
Option
Description
Sled Level Policy
Select a sled level policy when an emergency throttle event
(Chassis Level default) is triggered.
Chassis Level: Overrides the chassis level policy for a
specific server.
•
• Throttling: Allows compute sled throttling when an
emergency throttle event is triggered.
•
Power Off: Turns off the compute sled when an
emergency throttle event is triggered.
•
Do Nothing: The compute sled will do nothing when an
emergency throttle event is triggered.
Using the System Setup Program
87
Option
Description
Chassis Level Policy
(Throttling default)
Select a chassis level policy when an emergency throttle
event is triggered. This option can be configured when the
Sled Level Policy is set to Chassis Level policy.
• Throttling: Allows server throttling when an emergency
throttle event is triggered.
•
Power Off: Turns off the server power when an emergency
throttle event is triggered.
CPU Configuration
Scroll to this item and press <Enter> to view the following screen.
88
Using the System Setup Program
CPU Configuration
Option
Description
Active Processor Cores Allows you to control the number of enabled cores in each
(All Cores default)
processor. Options are [1], [2], [4], [6], [8], [10]and [All
Cores]. (Option depends on processor core.)
Frequency Ratio
Sets the frequency multipliers as maximum level.
(Auto default)
Max CPUID Value
Limit
(Disabled default)
Some OS, which is (NT4), fails if the value returned in
EAX is > 3 when CPUID instruction is executed with
EAX=0.
When enabled, this setting limits CPUID function to 3.
When disabled, this setting disables the 3 or less.
Virtualization
Technology
Allows you to set the Virtualization Technology in
applicable CPUs.
(Disabled default)
Enabled (applicable CPUs)/Disabled (unusable in any
OS).
QPI Frequency
(Auto default)
Select the link speed. Options are [6.4GTs], [7.2GTs], and
[8.0GTs].
Turbo Mode
Enables or disables processor Turbo mode.
(Enabled default)
C-States
(Enabled default)
When enabled, the processor(s) can operate in all available
power C states.
When disabled, the user power C states are not available
for the processor.
C1E State
Enables or disables the Enhanced Halt (C1E) state.
(Enabled default)
NOTE: Disable this option at your own risk. When you disable
this option, pop up message appears on the screen and
warning appears in the System Setup Help.
C6 State
Enables or disables the processor C6 state.
(Enabled default)
NOTE: Disable this option at your own risk. When you disable
this option, pop up message appears on the screen and
warning appears in the System Setup Help.
Using the System Setup Program
89
Option
Description
C7 State
Enables or disables the processor C7 state.
(Enabled default)
NOTE: This feature is available when the processor supports
C7 state.
NOTE: Disable this option at your own risk. When you disable
this option, a pop up message appears on the screen and
warning appears in the System Setup Help.
XD Bit Capability
(Enabled default)
Enables or disables the processor’s Execute Disable (XD)
Memory Protection Technology feature.
Direct Cache Access
Enables or disables the direct cache access.
(Enabled default)
Hyper-Threading
Technology
Enables or disables the Hyper-Threading technology.
(Enabled default)
Prefetch Configuration Press <Enter> to configure the prefetch settings.
NOTE: This feature is available when supported by the
processor.
90
Using the System Setup Program
Prefetch Configuration
Scroll to this item and press <Enter> to view the following screen.
Prefetch Configuration
Option
Description
Adjacent Cache Line
Prefetch
Enables or disables system optimization for sequential
memory access.
(Enabled default)
Hardware Prefetcher
(Enabled default)
Enables or disables the speculative unit within the
processor(s).
DCU Streamer
Prefetcher
Enables or disables Data Cache Unit (DCU) streamer
prefetcher.
(Enabled default)
NOTE: This feature is available when supported by the
processor.
Using the System Setup Program
91
Option
Description
DCU IP Prefetcher
Enables or disables DCU IP prefetcher.
(Enabled default)
NOTE: This feature is available when supported by the
processor.
Memory Configuration
Scroll to this item and press <Enter> to view the following screen.
Memory Configuration
Option
Description
Memory Frequency
(Auto default)
Select an operating memory frequency. Options are
[Auto], [800], [1066], [1333], [1600], and [1866].
Memory Turbo Mode
Enables or disables the memory turbo mode.
(Disabled default)
NOTE: This feature is not available for Intel Xeon
E5-2600 v2 processors.
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Using the System Setup Program
Option
Description
Memory Throttling Mode
(Enabled default)
Enables or disables the memory to run in closed-loop
thermal throttling mode.
Memory Operating Mode
Select the type of memory operation if a valid memory
(Optimizer Mode default) configuration is installed.
• Optimizer Mode: The two memory controllers run in
parallel 64-bit mode for improved memory
performance.
• Spare Mode: Enables memory sparing. In this mode,
one rank per channel is reserved as a spare.
If persistent correctable errors are detected on a rank,
the data from this rank is copied to the spare rank and
the failed rank is disabled.
With memory sparing enabled, the system memory
available to the operating system is reduced by one
rank per channel.
For example, in a dual-processor configuration with
sixteen 32 GB quad-rank DIMMs, the available
system memory is: 32 GB x 16(DIMMs) – 32/4 (rank
size) x 8 (channels) = 448 GB.
With sixteen 64 GB 8-rank LRDIMMs which use
Rank Multiplication(RM)=4, the available system
memory is: 64 GB x 16(DIMMs) – 64/8x4 (rank size)
x 8 (channels) = 768 GB.
• Mirror Mode: Enables memory mirroring
• Advanced ECC Mode: Controllers are joined in
128-bit mode running multi-bit advanced ECC.
Demand Scrubbing
Enables or disables DRAM scrubbing.
(Enabled default)
DRAM scrubbing is the ability to write corrected data
back to the memory once a correctable error is detected
on read transaction.
Patrol Scrubbing
Enables or disables patrol scrubbing.
(Enabled default)
Patrol scrubbing proactively searches the system
memory, repairing correctable errors.
Using the System Setup Program
93
Option
Description
Memory Operating Voltage If set to Auto, the system sets the voltage to an optimal
(Auto default)
value based on the capacity of the installed memory
modules. You can also set the voltage of the memory
module to a higher value (1.5 V) provided that the
modules support multiple voltages. Options are [Auto],
[1.5 volts], and [1.35 volts].
NOTE: BIOS will auto restrict selection if DIMM is not
supporting low voltage.
NUMA Support
(Enabled default)
Enables or disables Non-Uniform Memory Access
(NUMA) support to improve processor performance.
NOTE: This option is available for NUMA systems that
allow memory interleaving across all processor nodes.
Memory Mapped I/O
(Auto default)
Select the base address register for the PCIe memory
space. Options are [Auto], [32-bit], and [64-bit].
Memory Refresh Rate
Enables or disables the 2X memory refresh rate.
(X1 default)
94
Using the System Setup Program
SATA Configuration
Option
Description
Embedded SATA
Controller
(AHCI default)
Select an operation mode for the onboard SATA controller.
• Off: Disables the SATA controller. This token applies to
the first onboard SATA controller.
• IDE: Enables the SATA controller to run in IDE mode.
Sets the device class code as IDE and uses PCI IRQ
(referred as Native mode). This token applies to the first
onboard SATA controller.
• AHCI: Enables the SATA controller to run in AHCI
mode. Sets the device class code as SATA and sets up the
AHCI BARs and registers. This token applies to the first
onboard SATA controller.
• RAID: Enables the SATA controller to run in RAID mode.
Sets the device class code as RAID and executes the RAID
Option ROM. This token applies to the first onboard
SATA controller. This provides access to the RAID setup
utility during system bootup.
Embedded SATA Link Select a SATA link speed.
Rate (Auto default)
• Auto: Sets the SATA link speed at maximum 6.0 Gbps.
• 1.5 Gbps: Sets the SATA link speed to 1.5 Gbps. For
power consumption.
• 3.0 Gbps: Sets the SATA link speed to 3.0 Gbps.
SATA Port 0
(Auto default)
When set to off, turns off the 1st Serial ATA drive
controller.
When set to auto, enables BIOS support for the 1st Serial
ATA drive controller (enabled if present, POST error if not
present).
SATA Port 1
(Auto default)
When set to off, turns off the 2nd Serial ATA drive
controller.
When set to auto, enables BIOS support for the 2nd Serial
ATA drive controller (enabled if present, POST error if not
present).
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Using the System Setup Program
Option
Description
SATA Port 2
(Auto default)
When set to off, turns off the 3rd Serial ATA drive
controller.
When set to auto, enables BIOS support for the 3rd Serial
ATA drive controller (enabled if present, POST error if not
present).
SATA Port 3
(Auto default)
When set to off, turns off the 4th Serial ATA drive
controller.
When set to auto, enables BIOS support for the 4th Serial
ATA drive controller (enabled if present, POST error if not
present).
SATA Port 4
(Auto default)
When set to off, turns off the 5th Serial ATA drive
controller.
When set to auto, enables BIOS support for the 5th Serial
ATA drive controller (enabled if present, POST error if not
present).
SATA Port 5
(Auto default)
When set to off, turns off the 6th Serial ATA drive
controller.
When set to auto, enables BIOS support for the 5th Serial
ATA drive controller (enabled if present, POST error if not
present).
Power Saving Features
(Auto default)
Enables or disables the feature that allows SATA hard-
drives to initiate link power management transitions.
HDD Security Erase
(Disabled default)
Enables or disables the hard-drive security freeze lock
feature.
Using the System Setup Program
97
PCI Configuration
Scroll to this item and press <Enter> to view the following screen.
PCI Configuration
Option
Description
Embedded Network Devices Press <Enter> to configure available network drives.
NIC Enumeration
Select a LAN boot ROM option.
(Onboard default)
• Onboard: Uses the PXE boot on NICs to boot the
system.
• Add-in: Use the PXE boot on add-in network adapters
to boot the system.
Active State Power
Press <Enter> to configure power management for
Management Configuration PCI Express devices.
98
Using the System Setup Program
Option
Description
PCI Slot Configuration
Press <Enter> to configure PCI Express devices.
NOTE: When you install a Intel Xeon Phi card in the
C8220X sled, BIOS automatically enables the PCI memory
64-bit decode option.
PCIe Generation
(Gen3 default)
Select a PCI signaling rate.
• Gen1: 2.5 GT/s
• Gen2: 5 GT/s
• Gen3: 8 GT/s
VT for Direct I/O
(Disabled default)
Enables or disables Intel hardware virtualization
support.
SR-IOV Global Enable
(Disabled default)
Enables or disables BIOS configuration of Single Root
I/O Virtualization (SR-IOV) devices.
I/OAT DMA Engine
(Disabled default)
If set to Enabled, the I/O Acceleration Technology
(I/OAT) feature is enabled for network controllers that
support this technology.
Maximum Payload Size
(Auto default)
Sets the maximum payload size of the PCI Express
controller. Options are Auto, 128 bytes, and 256 bytes.
Embedded Video Controller Enables or disables the onboard video controller.
(Enabled default)
NOTE: This option should always be set to Enabled. The
remote KVM function cannot function if set to disabled.
Video Enumeration
Select video controller enumeration type.
(Onboard default)
• Onboard - The onboard video controller is used for
boot-time messages.
• Add-in - The first add-in video controller is used for
boot-time messages. Depending on the BIOS search
order and system slot layout.
WHEA Support
(Disabled default)
Enables or disables the Windows Hardware Error
Architecture (WHEA) feature.
Perfmon and DFX Devices Enables or disables the Perfmon devices (e.g. disk
(Disabled default)
usage, memory consumption, and CPU load) DFX
devices (such as a USB adaptor) installed in the system.
Using the System Setup Program
99
Option
Description
Reboot on WOL (ROW)
Enables or disables reboot on wake-on-LAN feature.
(Disabled default)
Reboot On WOL targets network controllers when the
network controller receives a magic packet. This option
displays when the network chip supports Reboot on
WOL feature.
Embedded Network Devices
Scroll to this item and press <Enter> to view the following screen.
100
Using the System Setup Program
Embedded Network Devices
Option
Description
Embedded NIC1
(Enabled with PXE
default)
Enables or disables the onboard NIC1 controller.
• Enabled with PXE: Allows you to enable the system’s
primary embedded NIC (full function), including its PXE
boot-ROM.
• Enabled without PXE: Allows you to enable the system’s
primary embedded NIC only. The NIC associated PXE or
RPL boot-ROM are disabled in this option.
• iSCSI Remote Boot: Allows you to configure the iSCSI
target and initiator variables to support iSCSI Remote
Boot. Changes take effect after the system reboots.
• Disabled: Allows you to disable the system’s primary
embedded NIC.
Embedded NIC2
(Enabled without PXE
default)
Enables or disables the onboard NIC2 controller.
• Enabled with PXE: Allows you to enable the system’s
secondary embedded NIC (full function), including its
PXE boot-ROM.
• Enabled without PXE: Allows you to enable the system’s
secondary embedded NIC only. The NIC associated PXE
or RPL boot-ROM are disabled in this option.
• iSCSI Remote Boot: Allows you to configure the iSCSI
target and initiator variables to support iSCSI Remote
Boot. Changes take effect after the system reboots.
• Disabled: Allows you to disable the system’s primary
embedded NIC.
Using the System Setup Program
101
iSCSI Remote Boot
Select iSCSI Remote Boot in the Embedded NIC1/NIC2 option and press
<Enter> to view the following screen.
iSCSI Remote Boot
Option
Description
iSCSI Initiator Name
Displays the worldwide unique name of the initiator.
NOTE: Only iqn format is accepted.
Enables or disables the DHCP network settings.
Enable DHCP
(Disabled default)
Initiator IP Address
Initiator Subnet Mask
Gateway
Sets the initiator’s static IP address.
Sets the subnet mask for the static IP address.
Sets the IP gateway for the static IP address.
Sets the name for the target IP.
Target Name
Target IP Address
Sets the target’s IP address.
102
Using the System Setup Program
Option
Description
Target Port
Boot LUN
CHAP Type
(None default)
Sets the target port.
Sets the hexadecimal representation of LU number.
Select CHAP type. Options are [None], [One Way
CHAP], and [Mutual CHAP].
Active State Power Management Configuration
Scroll to this item and press <Enter> to view the following screen.
Active State Power Management Configuration
Option
Description
PCIe Slot ASPM
(Disabled default)
Select an active state power management (ASPM)
protocol for the PCI Express slot. Options are
[Disabled] and [L1].
Onboard LAN ASPM
(Disabled default)
Select an ASPM protocol for the onboard network
controller. Options are [Disabled] and [L1].
Using the System Setup Program
103
Option
Description
Mezzanine Slot ASPM
Select an ASPM protocol for the mezzanine slot.
(Disabled default)
NB-SB Link ASPM
(L1 default)
Select an ASPM protocol for the northbridge and
southbridge chipsets.
PCI Slot Configuration
Scroll to this item and press <Enter> to view the following screen.
104
Using the System Setup Program
PCI Slot Configuration
Option
Description
PCIe Slot1
(Enabled default)
Enables or disables the PCIe slot1. Options are
[Disabled], [Enabled], [Enabled without OPROM].
NOTE: When you install a Intel Xeon Phi card in the
C8220X sled, BIOS automatically enables the PCI memory
64-bit decode option. You can set the GPGPU information
using IPMI commands. See Table 2-18 for more
information.
USB Configuration
Scroll to this item and press <Enter> to view the following screen.
Using the System Setup Program
105
USB Configuration
Option
Description
Embedded USB
Controller
Enables or disables the onboard USB controller at system
startup.
(Enabled default)
USB Port with BMC
(Enabled default)
Enables or disables internal USB port with BMC support.
Enables or disables the external USB port1.
External USB Port1
(Enabled default)
External USB Port2
Enables or disables the external USB port2.
(Enabled default)
Internal USB Connector Enables or disables the internal USB port.
(Enabled default)
106
Using the System Setup Program
Security Menu
The security menu enables you to set the security parameters. Scroll to this
item and press <Enter> to view the following screen.
Security Settings
Option
Description
Supervisor Password
Indicates whether a supervisor password has been set. If
the password has been installed, Installed is displayed. If
not, Not Installed is displayed.
User Password
Indicates whether a supervisor password has been set. If
the password has been installed, Installed displays. If not,
Not Installed displays.
Using the System Setup Program
107
Option
Description
Change Supervisor
You can install a Supervisor password, and if you install a
supervisor password, you can then install a user password.
A user password does not provide access to many of the
features in the Setup utility. Note, the Change User
Password option only appears after a Supervisor password
has been set.
Select this option and press <Enter> to access the sub
menu, a dialog box appears which lets you enter a
password. You can enter no more than six letters or
numbers. Press <Enter> after you have typed in the
password. A second dialog box asks you to retype the
password for confirmation. Press <Enter> after you have
retyped it correctly. If the password confirmation is
incorrect, an error message appears. The password is stored
in NVRAM after ezPORT completes. The password is
required at boot time, or when the user enters the Setup
utility.
Change User Password
Installs or changes the User password.
Prevent Back-flash
(Disabled default)
This option, when enabled, will prohibit the system BIOS
to downgrade to version 2.1.0 or earlier version.
WARNING: You will not be able to change the setting once
the feature is enabled. It is strongly recommended not
to enable this unless absolutely necessary.
NOTE: Once enabled, you cannot use the NVRAM clear
jumper to change the prevent back-flash settings to
disabled.
108
Using the System Setup Program
Server Menu
The server menu enables you to configure compute sled parameters. Scroll to
this item and press <Enter> to view the following screen.
Server Settings
Option
Description
Status of BMC
Displays BMC status.
IPMI Specification Version Displays the Intelligent Platform Management
Interface (IPMI) firmware version number.
BMC Firmware Version
NIC1 MAC Address
Displays the BMC firmware version number.
Displays the MAC address for the NIC1 connector.
Displays the MAC address for the NIC2 connector.
NIC2 MAC Address
BMC NIC MAC Address
Displays the MAC address for the BMC NIC
connector.
Using the System Setup Program
109
Option
Description
ACPI SPMI Table
(Enabled default)
When enabled, BIOS enables Advanced Configuration
and Power Interface (ACPI) Service Processor
Management Interface (SPMI) table for IPMI driver
installation.
When disabled, BIOS disables the ACPI SPMI table
for BMC ROM update.
Set BMC LAN
Configuration
Press <Enter> to set the BMC network.
Remote Access
Configuration
Press <Enter> to configure serial port settings related
to console redirection.
Restore on AC Power Loss Select the power state when the AC power is back.
(Power On default)
• Power Off: System remains off until the power button
is pressed.
• Last State: System reverts to the last power state
before power loss.
• Power On: System switches back on after the AC
power loss.
Power Staggering AC
Recovery
Set the time period for the system to turn back on from
an AC power loss once power is resumed.
(Immediate default)
• Immediate: Power On (No Delay)
• Random: Auto
• User Defined: User defined delay time.
Power Button
(Enabled default)
When enabled, the power button can turn the system's
power off.
When disabled, the power button can only turn on
system power.
View System Event Log
Press <Enter> to view the BMC system event log.
Enables or disables BIOS to log system events.
Event Logging
(Enabled default)
NMI on Error
(Enabled default)
Enables or disables BIOS to generate an Non-masked
Interrupt (NMI) when an uncorrectable PCI Express
error occurs.
110
Using the System Setup Program
Set BMC LAN Configuration
Scroll to this item and press <Enter> to view the following screen.
Set BMC LAN Configuration
Option
Description
Channel Number
Displays the channel number used for BMC LAN.
Channel Number Status Displays the BMC channel number status.
BMC LAN Port
Configuration
Set the BMC management port to dedicated or shared
NIC port. Options are [Dedicated NIC] and [Shared NIC].
(Shared-NIC default)
BMC NIC IP Source
(DHCP default)
Set BMC to obtain its IP address using DHCP or establish
a static IP address.
IP Address
Sets the static IP address.
Subnet Mask
Gateway Address
Sets the subnet mask for the static IP address.
Sets the IP gateway for the static IP address.
Using the System Setup Program
111
Option
Description
Gateway MAC Address Sets the MAC address for the static IP address.
BMC NIC MAC
Address
Sets the MAC address for the BMC management port.
Enables or disables the IPv6 internet protocol support.
IPv6 Mode
(Disabled default)
If set to enabled, configure the IPv6 prefix, IP and gateway
addresses.
IPv6 Mode
Select Enabled in the IPv6 Mode option and press <Enter> to view the
following screen.
IPv6 Mode
Option
Description
IPv6 AutoConfig
Enables or disables IPv6 auto configuration.
112
Using the System Setup Program
Option
Description
IPv6 Prefix Length
IPv6 IP Address
Sets prefix length of the IPv6 address.
Set the BMC management port to dedicated or shared
NIC port. Options are [Dedicated NIC] and [Shared NIC].
IPv6 IP Address
Sets the BMC IPv6 address.
IPv6 Gateway Address
Sets the MAC address for the static IPv6 address.
Remote Access Configuration
Scroll to this item and press <Enter> to view the following screen.
Remote Access Configuration
Option
Description
Remote Access
Enables or disables serial console redirection.
(Enabled default)
Using the System Setup Program
113
Option
Description
Serial port number
Select a serial port for console redirection.
(COM1 default)
• COM1: Enables console redirection via COM1. See
token D7h.
• COM2 as SOL: Enables console redirection via
COM2.
Serial Port Address
Specifies the base I/O port address of the serial port.
(3F8h/2F8h default)
•
3F8h/2F8h: Sets the front serial port address as 0x3F8
and internal serial port address as 0x2F8.
• COM2 as SOL: Sets the front serial port address as
0x2F8 and internal serial port address as 0x3F8.
Serial Port Mode
(115200 8,n,1 as default)
Select a baud rate for the serial port. Options are
[115200 8,n,1], [57600 8,n,1], [38400 8,n,1],
[192008,n,1], and [9600 8,n,1].
Flow Control
(None default)
Select a flow control for console redirection. Options
are [None] and [Software].
Redirection After BIOS
POST (Always default)
If set to Always, the console redirection is always active.
When Disabled, console redirection is turned off after
POST.
Terminal Type
(ANSI default)
Select a target terminal type for console redirection.
Options are [ANSI], [VT100], and [VT-UTF8].
VT-UTF8 Combo Key
Enables or disables the VT-UTF8 Combination Key
Support (Enabled default) support for ANSI/VT100 terminals.
114
Using the System Setup Program
Boot Menu
The boot menu enables you to set POST boot parameters. Scroll to this item
and press <Enter> to view the following screen.
Boot Settings
Option
Description
Quiet Boot
(Enabled default)
Enable this item to display the splash or summary
screen, rather than the detail of the POST flow. When
disabled, normal POST messages appear.
Pause on Errors
(Disabled default)
Enables or disables BIOS to prompt you to press <F1>
or <F2> keys on errors during POST.
Force PXE Boot only
Enables or disables PXE to be the only boot device.
(Disabled default)
116
Using the System Setup Program
Option
Description
Boot Mode
Select a system boot mode.
(BIOS default)
•
BIOS: The standard BIOS-level boot interface
• UEFI: An enhanced 64-bit boot interface based on
Unified Extensible Firmware Interface (UEFI)
specifications that overlays the system BIOS.
Boot Type Order
Press <Enter> to set the preferred boot sequence from
the available devices.
Legacy Boot Device
Press <Enter> to set the preferred boot sequence from
the available legacy USB devices.
Using the System Setup Program
117
Exit Menu
Scroll to this item and press <Enter> to view the following screen.
Exit Options
Option
Description
Save Changes and Exit
Highlight this item and press <Enter> to save any
changes that you have made in the Setup utility and
exit the Setup utility. When the Save Changes and Exit
dialog box appears, press <Y> to save the changes and
exit, or press <N> to return to the setup main menu.
Discard Changes and Exit Highlight this item and press <Enter> to discard any
changes that you have made in the Setup utility and
exit the Setup utility. When the Discard Changes and
Exit dialog box appears, press <Y> to discard changes
and exit, or press <N> to return to the setup main
menu.
118
Using the System Setup Program
Option
Description
Save Changes
Select this item and press <Enter> to save changes
you have made without leaving the setup utility.
Discard Changes
Select this item and press <Enter> to discard any
changes you have made without leaving the setup
utility.
Load Optimal Defaults
If you highlight this item and press <Enter>, a dialog
box asks if you want to install optimal settings for all
the items in the Setup utility. Press the <Y> key to
indicate Yes, and then press <Enter> to install the
optimal settings.
The optimal settings default values are quite
demanding and your system might not function
properly if you are using slower memory chips or other
kinds of low-performance components.
Load Customized Defaults Load 2nd default values from NVRAM for all the setup
parameters.
Save Customized Defaults Save all the setup parameters to NVRAM as 2nd
default values.
Using the System Setup Program
119
Command Line Interfaces for System Setup
Options
The options in the System Setup menu allows you to control the System
Configuration Utility (syscfg). This utility is included in the Dell
OpenManage Deployment Toolkit (DTK).
See the Deployment Toolkit Version 1.3 User's Guide for additional
information about installing and using the DTK utilities, and the
Deployment Toolkit Version 1.3 Command Line Interface Reference Guide
for a complete list of all valid options, suboptions, and arguments for using
the BMCCFG.EXE to configure and manage your BMC.
You can use the system configuration utility for the following conditions:
•
To change the System Setup option by D4 token:
./syscfg –t=D4_token_id
(Example: ./syscfg -t=0x002D to enable NIC1 Option ROM)
•
To check token activity status:
./syscfg --istokenactive=D4_token_id
(Example: ./syscfg --istokenactive=0x002D to check the token active
status of NIC1 Option ROM)
•
To directly change the System Setup option through BMC memory:
./ipmitool raw <command> <data>
(Example: ./ipmitool raw 0xc 1 1 3 10 106 42 120 to set IP address of BMC
management port as 10.106.42.120)
Table 2-1. D4 Token Table
Token
Setup Option
Description
002D
Embedded NIC1 Enables the onboard NIC1 controller (full-function),
including its PXE boot-ROM.
002E
0051
Embedded NIC1 Disables the onboard NIC1 controller.
N/A
For the next system boot, set the IPL priority to: USB
storage, hard disk, CD/DVD-ROM, RAID, Network (if
the devices are available).
120
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
0052
N/A
For the next system boot, set the IPL priority to: hard
disk then option ROMs (if the devices are available).
0053
0054
005C
005D
N/A
N/A
N/A
N/A
For the next system boot, set the IPL priority to:
Network, hard disk, RAID,USB storage, CD/DVD-
ROM (if the devices are available).
For the next system boot, set the IPL priority to:
CD/DVD-ROM, USB Storage, hard disk, RAID,
Network (if the devices are available).
Enables BIOS remote update on the next reboot, to
search for an operating-system initiated BIOS update
image.
Disables BIOS remote update on the next reboot, to
search for an operating-system initiated BIOS update
image.
006E
0087
0088
Embedded NIC1 Enables the onboard NIC1 controller, but disables the
NIC associated PXE or RPL boot-ROM.
Video
Enumeration
Allows BIOS to use the onboard video controller for
boot-time messages.
Video
Enumeration
Allows BIOS to use the first add-in video controller for
boot-time messages. Depending on the BIOS search
order and system slot layout.
008C
008D
00A1
00A2
00A3
00BA
Embedded USB Allows BIOS to enable the built-in USB controller at
Controller system startup.
Embedded USB Allows BIOS to enable the built-in USB controller at
Controller
system startup.
Restore on AC
Power Loss
System remains off until the power button is pressed.
Restore on AC
Power Loss
System reverts to the last power state before power
loss.
Restore on AC
Power Loss
System switches back on after the AC power loss.
Embedded NIC2 Disables the onboard NIC2 controller.
Using the System Setup Program
121
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
00BB
Embedded NIC2 Enables the onboard NIC2 controller, but disables the
NIC associated PXE or RPL boot-ROM.
00BC
Embedded NIC2 Enables the onboard NIC2 controller (full-function),
including its PXE boot-ROM.
00BF
00C0
Remote Access
Disables serial console redirection.
Serial port
number
Enables console redirection via COM1. See token
D7h.
00C1
00C2
00D1
00D2
00D7
00D8
00FE
00FF
Power Button
Enables the power button to turn off the system
power. (default)
Power Button
Disables the power button to turn off the system
power.
Hyper-Threading Enables Hyper-Threading Technology.
Technology
Hyper-Threading Disables Hyper-Threading Technology.
Technology
Serial port
number
Enables console redirection via COM2.
Load Optimal
Defaults
Install optimal default settings for all the items in the
Setup utility on the next boot.
Legacy USB
Support
Disables the system to provide legacy USB support for
the operating system.
Legacy USB
Support
Enables the system to provide legacy USB support for
the operating system.
0117
0118
SATA Port0
SATA Port0
Turns off the 1st Serial ATA drive controller.
Enables BIOS support for the 1st Serial ATA drive
controller (enabled if present, POST error appears if
not present).
0119
011A
SATA Port1
SATA Port1
Turns off the 2nd Serial ATA drive controller.
Enables BIOS support for the 2nd Serial ATA drive
controller (enabled if present, POST error appears if
not present).
122
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
011B
011C
Setup Option
SATA Port2
SATA Port2
Description
Turns off the 3rd Serial ATA drive controller.
Enables BIOS support for the 3rd Serial ATA drive
controller (enabled if present, POST error appears if
not present).
011D
011E
SATA Port3
SATA Port3
Turns off the 4th Serial ATA drive controller.
Enables BIOS support for the 4th Serial ATA drive
controller (enabled if present, POST error appears if
not present).
011F
0120
SATA Port4
SATA Port4
Turns off the 5th Serial ATA drive controller.
Enables BIOS support for the 5th Serial ATA drive
controller (enabled if present, POST error appears if
not present).
0121
0122
SATA Port5
SATA Port5
Turns off the 6th Serial ATA drive controller.
Enables BIOS support for the 6th Serial ATA drive
controller (enabled if present, POST error appears if
not present).
0135
0137
Embedded SATA Disables the SATA controller. This token applies to
Controller the first onboard SATA controller.
Embedded SATA Enables the SATA controller to run in IDE mode. Sets
Controller
the device class code as IDE and uses PCI IRQ
(referred as Native mode). This token applies to the
first onboard SATA controller.
0138
0139
013E
Embedded SATA Enables the SATA controller. Sets the device class
Controller
code as SATA and sets up the AHCI BARs and
registers. This token applies to the first onboard SATA
controller.
Embedded SATA Enables the SATA controller. Sets the device class
Controller
code as RAID and executes the RAID Option ROM.
This token applies to the first onboard SATA
controller.
Memory
Remapping
(3GB - 4GB)
When disabled, memory remapping relocates memory
space behind PCI hole to the space above 4 GB.
Using the System Setup Program
123
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
013F
Memory
Remapping
(3GB~4GB)
When enabled, memory remapping relocates memory
space (3GB - 4 GB) to the space above 4 GB.
0140
0141
Execute-Disable When disabled, the Intel processors supporting the
(XD) Bit
Capability
XD feature reports the support to the operating
system.
Execute-Disable When enabled, the Intel processors supporting the
(XD) Bit
Capability
XD feature reports the support to the operating
system. If the operating system supports this extended
paging mechanism, it will provide some protection
against software viruses that exploit buffer overflows.
014A
Virtualization
Technology
Allows you to disable the VT technology in applicable
processors. If disabled, the VT feature is unusable in
any OS.
014B
014E
014F
0168
Virtualization
Technology
Allows you to enable the VT technology in applicable
processors.
External USB
PORT1
Allows you to electrically disable the external USB
connector 1.
External USB
PORT1
Allow you to electrically enable the external USB
connector 1.
Max CPUID
Value Limit
Some OS, which is (NT4), fails if the value returned
in EAX is >3 when CPUID instruction is executed
with EAX=0. This setting disables the 3 or less.
0169
Max CPUID
Value Limit
Some OS, which is (NT4), fails if the value returned
in EAX is >3 when CPUID instruction is executed
with EAX=0. This setting limits CPUID function
to 3.
016F
0170
Embedded SAS Disables the SAS controller. This token applies to the
Controller onboard SAS controller.
Embedded SAS Enables the SAS controller. Sets the device class code
Controller
as AHCI/RAID and executes the RAID Option ROM.
This token applies to the onboard SAS controller.
124
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
0171
Adjacent Cache Disables system optimization for sequential memory
Line Prefetch
access. The processor fetches the cache line that
contains the data it currently requires.
0172
Adjacent Cache Enables system optimization for sequential memory
Line Prefetch
access. The processor fetches the adjacent cache line
in the other half of the sector.
0173
0174
Hardware
Prefetcher
Disables the processor’s HW prefetcher..
Enables the processor’s HW prefetcher.
Enables serial console redirection.
Hardware
Prefetcher
0178
0189
Remote Access
External USB
PORT2
Allows you to electrically disable the external USB
connector 2.
018A
0199
019A
01C4
External USB
PORT2
Allow you to electrically enable the external USB
connector 2.
Power Saving
Features
Disables the feature that allows SATA hard-drives to
initiate link power management transitions.
Power Saving
Features
Enables the feature that allows SATA hard-drives to
initiate link power management transitions.
NUMA Support Disables the NUMA support to improve processor
performance. This option is available for NUMA
systems that allow memory interleaving across all
processor nodes.
01C5
NUMA Support Enables the NUMA support to improve processor
performance. This option is available for NUMA
systems that allow memory interleaving across all
processor nodes.
01C4
01C5
Node Interleave Disables the node interleave option. This option is
available for NUMA systems that allow memory
interleaving across all processor nodes.
Node Interleave Enable the node interleave option. This option is
available for NUMA systems that allow memory
interleaving across all processor nodes.
Using the System Setup Program
125
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
01CF
I/OAT DMA
Engine
Enables the I/O Acceleration Technology (I/OAT)
DMA Engine feature. Set to enabled only if the
hardware and software support I/OAT.
01D0
I/OAT DMA
Engine
Disables the I/OAT DMA Engine feature. This option
should be disabled only if the hardware and software
support I/OAT.
01DA
01DB
01EA
Embedded NIC1 Enables NIC1 with iSCSI Remote Boot.
Embedded NIC2 Enables NIC2 with iSCSI Remote Boot.
Turbo Mode
Disables memory turbo mode. It disables the
processor core to increase its frequency.
01EB
Turbo Mode
Enables memory turbo mode. It allows the processor
core to increase its frequency.
01F0
01F1
Embedded NIC3 Enables the onboard NIC3 controller.
Embedded NIC3 Enables the onboard NIC3 controller, but disables the
NIC associated PXE or RPL boot-ROM.
01F2
Embedded NIC3 Enables the onboard NIC3 controller (full-function),
including its PXE boot-ROM.
01F3
0204
Embedded NIC3 Enables NIC3 with iSCSI Remote Boot.
VT for Direct I/O Disables Intel Virtualization Technology for Direct
I/O (VT-d) that enhances I/O support (DMA) when
running a Virtual Machine Monitor.
0205
VT for Direct I/O Enables Intel Virtualization Technology for Direct I/O
(VT-d) that enhances I/O support (DMA) when
running a Virtual Machine Monitor.
0211
0212
021F
0221
Internal USB
PORT
Disables the internal USB connector.
Internal USB
PORT
Enables the internal USB connector.
Maximum
Performance
Sets the system power management to maximum
performance.
OS Control
Allows the OS to change the P-state.
126
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Embedded Video Enables the onboard video controller as the primary
Controller video device.
Description
0224
0225
022D
022E
0231
0232
0233
024B
024C
024D
024E
024F
0250
Embedded Video Disables the onboard video controller.
Controller
Boot Mode
Enables booting to Unified Extensible Firmware
Interface (UEFI) capable operating systems.
Boot Mode
Enables booting to legacy mode, ensures compatibility
with operating systems that do not support UEFI.
Active Processor Four cores of the processor are enabled This applies to
Cores Quad-core processors only.
Active Processor Two cores of the processor are enabled. This applies to
Cores Quad-core and Dual-core processors.
Active Processor Single core of the processor is enabled. This applies to
Cores
Quad-core and Dual-Core processors.
C States
When enabled, the processor can operate in all
available Power C States. (default)
C States
When disabled, there are no C states available for the
processor.
Pause on Errors
Pause on Errors
Quiet Boot
Enables the BIOS from prompting for F1/F2 on error.
BIOS pauses at F1/F2 prompt.
Disables the BIOS from prompting for F1/F2 on error.
BIOS pauses at F1/F2 prompt.
Enables the display of the splash or summary screen,
rather than the detail of the POST flow.
Quiet Boot
Disables the display of the splash or summary screen.
The user is able to see the detail of the POST
messages.
0251
0252
0254
N/A
The NIC1 is used for PXE boot, followed by NIC2.
The NIC2 is used for PXE boot, followed by NIC1.
N/A
3F8h/2F8h
Sets the back serial port address to 0x3F8 and internal
serial port address to 0x2F8
Using the System Setup Program
127
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
0257
2F8h/3F8h
Sets the back serial port address to 0x2F8 and internal
serial port address to 0x3F8.
025D
Optimizer Mode Selects optimizer mode as the memory operating
mode.
025E
025F
0260
Spare Mode
Mirror Mode
Selects spare mode as the memory operating mode.
Selects mirror mode as the memory operating mode.
Advanced ECC
Mode
Selects Advanced ECC (i.e. Lockstep, Chipkill) as the
memory operating mode.
026A
026B
026E
Coherent HT
Link Speed
Sets to support HyperTransport 1 specification.
Coherent HT
Link Speed
Sets to support HyperTransport 3 specification.
Active Processor This field controls the number of enabled all of cores
Cores
in each processor. By default, the maximum number
of cores per processor will be enabled.
026F
0270
0271
0272
027B
027C
Active Processor This field controls the number of enabled 6 cores in
Cores
each processor. By default, the maximum number of
cores per processor will be enabled.
Active Processor This field controls the number of enabled 8 cores in
Cores
each processor. By default, the maximum number of
cores per processor will be enabled.
Active Processor This field controls the number of enabled 10 cores in
Cores
each processor. By default, the maximum number of
cores per processor will be enabled.
Active Processor This field controls the number of enabled 12 cores in
Cores
each processor. By default, the maximum number of
cores per processor will be enabled.
HT Assist
Disables the Probe Filter chipset option in the System
setup. There are some applications that may lower
chipset performance when this is enabled.
HT Assist
Enables the Probe Filter chipset option in the System
setup. There are some applications that may lower
chipset performance when this is disabled.
128
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
02A1
C1E State
Enables the processor Enhanced Halt (C1E) state.
(default)
02A2
C1E State
Disables the processor C1-E state. Do at your own
risk. When you disable this option, a warning appears
in the BIOS Setup help text and a pop up message
appears when this option is changing.
02A9
DRAM Prefetcher Disables DRAM references from triggering DRAM
prefetch requests.
02AA
02AB
DRAM Prefetcher Turns on the DRAM prefetch unit in the Northbridge.
HW Prefetch
Disables hardware prefetcher from considering
Training on SW software prefetches when detecting strides for
prefetch requests.
02AC
HW Prefetch
Enables Hardware prefetcher considers software
Training on SW prefetches when detecting strides for prefetch
requests. (default)
02AD
02AE
02B6
02B7
02B8
SR-IOV Global
Enable
Enables BIOS support for SRIOV devices.
Disables BIOS support for SRIOV devices.
Indicates all DIMMs in the system are operating at 1.5
SR-IOV Global
Enable
Memory
Operating Voltage volts.
Memory
Operating Voltage 1.35 volts.
Indicates all DIMMs in the system are operating at
Memory
This setting indicates the memory operating voltage
Operating Voltage will be set automatically by the Memory initialization
code and depending upon the installed DIMM's
capability and the memory configuration of the
system. This is the default setting and will set the
Memory Operating voltage to the POR voltage.
02C5
02C6
DCU Streamer
Prefetcher
Enables the DCU Streamer Prefetcher. (default)
DCU Streamer
Prefetcher
Disables the DCU Streamer Prefetcher.
Using the System Setup Program
129
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
02C7
Data Reuse
Optimization
Sets to enable for HPC applications. (default)
02C8
02C9
02CA
02CE
02CF
401A
Data Reuse
Optimization
Sets to disable for energy efficiency.
QPI Bandwidth
Priority
Sets to compute for computation-intensive
applications. (default)
QPI Bandwidth
Priority
Sets to I/O for I/O-intensive applications.
Enables the DCU IP Prefetcher. (default)
Disables the DCU IP Prefetcher.
DCU IP
Prefetcher
DCU IP
Prefetcher
Terminal Type
The BIOS console redirection, if enabled, operates in
VT100 emulation model. See tokens BFh, C0h, and
D7h.
401B
Terminal Type
The BIOS console redirection, if enabled, operates in
ANSI emulation model. See also tokens BFh, C0h,
and D7h.
401C
401D
Redirection After The BIOS console redirection, if enabled, continues to
BIOS POST operate after the OS boot hand-off.
Redirection After The BIOS console redirection, if enabled, operates
BIOS POST
during the BIOS boot only and is disabled prior to OS
boot hand-off. See also tokens BFh, C0h, D7h, 401Ah,
and 401Bh.
4022
1st Boot Device Whenever the BIOS boots the system, the first PXE-
capable device is inserted as the first device in the
boot sequence. Enabling this feature causes the BIOS
operation to occur on the next and all subsequent
boots and causes a change in the system's defined
boot sequence. The BIOS chooses the first PXE-
capable device as the system's onboard network
controller, if present and enabled, or the first bootable
network device found in the system's standard PCI
search order.
130
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
4026
Manufacturing
Mode
Enables the manufacturing mode to bypass POST
tasks/memory tests and F1/F2 prompts on specific
error messages. Used by manufacturers only and is not
for general use.
4027
Manufacturing
Mode
Disables the manufacturing mode to bypass POST
tasks/memory tests and F1/F2 prompts on specific
error messages. Used by manufacturers only and is not
for general use.
4033
4034
4035
4036
403F
Serial Port Mode Console Redirection baud rate is set to 115,200 bits
per second.
Serial Port Mode Console Redirection baud rate is set to 57,600 bits per
second
Serial Port Mode Console Redirection baud rate is set to 19,200 bits per
second.
Serial Port Mode Console Redirection baud rate is set to 9,600 bits per
second.
Clear SMBIOS
Deletes all records in the BMC system event log on
System Event Log the next boot.
4800
4801
Node Manager
APML
Enables the Node Manager mode for Intel processors.
Enable the Advanced Platform Management Link
mode for AMD processors.
4802
4803
4804
4805
4806
CPU Power
Capping
To decide the highest processor performance state in
the OS. (P0-state)
CPU Power
Capping
To decide the highest processor performance state in
the OS. (P1-state)
CPU Power
Capping
To decide the highest processor performance state in
the OS. (P2-state)
CPU Power
Capping
To decide the highest processor performance state in
the OS. (P3-state)
CPU Power
Capping
To decide the highest processor performance state in
the OS. (P4-state)
Using the System Setup Program
131
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
480A
C6 State
Disables the processor C6 state. Do at your own risk.
When you disable this option, a warning appears in
the BIOS Setup help text and a pop up message
appears when this option is changing.
480B
480C
C6 State
Enables the processor C6 state. (default)
L3 Cache Power Disable the clock stop for an idle subcache.
Control
480D
480E
L3 Cache Power Enable the clock stop for an idle subcache.
Control
C7 State
Disables the processor C7 state. Do at your own risk.
When you disable this option, a warning appears in
the BIOS Setup help text and a pop up message
appears when this option is changing.
480F
4810
C7 State
Enables the processor C7 state. (default)
Sets the HT link to 8 bit width.
Non Coherent
HT Link Width
4811
4812
4813
4814
4815
4816
4817
4820
Non Coherent
HT Link Width
Sets the HT link to 16 bit width.
Sets the HT link speed to 800 MHz.
Sets the HT link speed to 1000 MHz.
Sets the HT link speed to 1200 MHz.
Sets the HT link speed to 1600 MHz.
Sets the HT link speed to 2000 MHz.
Sets the HT link speed to 2600 MHz.
Disables memory turbo mode.
Non Coherent
HT Link Speed
Non Coherent
HT Link Speed
Non Coherent
HT Link Speed
Non Coherent
HT Link Speed
Non Coherent
HT Link Speed
Non Coherent
HT Link Speed
Memory Turbo
Mode
132
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
4821
Memory Turbo
Mode
Enables memory turbo mode.
4822
NUMA Support Enables the node interleave option for SLES11. This
applies to NUMA systems that allow memory
interleaving across all processor nodes.
4823
4824
4825
4826
4827
4960
4828
4829
482A
Memory
Frequency
Detects the memory running speed from H/W
designed (SPD, memory population).
Memory
Frequency
Sets memory running speed up to 800 MHz.
Sets memory running speed up to 1066 MHz.
Sets memory running speed up to 1333 MHz.
Sets memory running speed up to 1600 MHz.
Sets memory running speed up to 1866 MHz.
Sets memory running as Open Loop Throughput
Memory
Frequency
Memory
Frequency
Memory
Frequency
Memory
Frequency
Memory
Throttling Mode Throttling (OLTT). (default)
Memory
Sets memory running as Closed Loop Thermal
Throttling Mode Throttling (CLTT).
DRAM Scrubbing Disables DRAM scrubbing to write corrected data
back to the memory once a correctable error is
detected on a read transaction.
482B
482C
DRAM Scrubbing Enables Dram scrubbing to write corrected data back
to the memory once a correctable error is detected on
a read transaction.
Demand
Disables Demand scrubbing to write corrected data
back to the memory once a correctable error is
detected on a read transaction.
Scrubbing
Using the System Setup Program
133
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
482D
Demand
Scrubbing
Enables Demand scrubbing to write corrected data
back to the memory once a correctable error is
detected on a read transaction.
482E
482F
4830
4831
Patrol Scrubbing Disables Patrol scrubbing to proactively search the
system memory, repairing correctable errors.
Patrol Scrubbing Enables Patrol scrubbing to proactively search the
system memory, repairing correctable errors.
HDD Security
Erase
Sets security freeze lock to all hard-drives.
HDD Security
Erase
Unlocks the security freeze lock on all hard-drives.
4832
4833
4834
AHCI-AMD
AHCI-MS
Supports AMD inbox AHCI driver.
Supports Microsoft inbox AHCI driver.
Embedded SATA Sets the SATA link rate at maximum rate speed of
Link Rate 6.0 Gbps.
4835
4836
4840
4841
4842
4843
4844
Embedded SATA Sets the SATA link rate at minimum rate speed of
Link Rate 1.5 Gbps. For power consumption.
Embedded SATA Sets the SATA link rate at minimum rate speed of
Link Rate 3.0 Gbps.
PCIe Slot ASPM Controls the level of ASPM supported on the PCI
Express Link of port. All entry disabled.
PCIe Slot ASPM Controls the level of ASPM supported on the given
PCI Express Link of port. L0s entry enabled.
PCIe Slot ASPM Controls the level of ASPM supported on the given
PCI Express Link of port. L1 entry enabled.
PCIe Slot ASPM Controls the level of ASPM supported on the given
PCI Express Link of port. L0s and L1 entry enabled.
PCIe Slot ASPM Controls the level of ASPM supported on the given
PCI Express Link of port. L0s entry downstream
enabled.
134
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
4845
PCIe Slot ASPM Controls the level of ASPM supported on the given
PCI Express Link of port. L0s entry downstream and
L1 enabled
4846
4847
4848
4849
484A
484B
484C
484D
484E
484F
4850
4851
4852
4853
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. All entry disabled.
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. L0s entry enabled.
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. L1 entry enabled.
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. L0s and L1 entry enabled.
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. L0s entry downstream enabled.
Onboard LAN
ASPM
Controls the level of ASPM supported to onboard
LAN. L0s entry downstream and L1 enabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. All entry disabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. L0s entry enabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. L1 entry enabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. L0s and L1 entry enabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. L0s entry downstream enabled.
Mezzanine Slot
ASPM
Controls the level of ASPM supported on Mezzanine
Slot. L0s entry downstream and L1 enabled.
NB-SB Link
ASPM
Controls the level of ASPM supported on the NB-SB.
All entry disabled.
NB-SB Link
ASPM
Controls the level of ASPM supported on the NB-SB.
L1 entry enabled.
Using the System Setup Program
135
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
4854
Maximum
Payload Size
Auto detects the PCIe maximum payload size.
4855
4856
Maximum
Payload Size
Sets the PCIe maximum payload size to 128 Bytes.
Sets the PCIe maximum payload size to 256 Bytes.
Maximum
Payload Size
4857
4858
4859
WHEA Support Disables Windows Hardware Error Architecture.
WHEA Support Enables Windows Hardware Error Architecture.
NIC
Sets PXE boot from onboard NIC to Add-on NIC
adapter. (default)
Enumeration
485A
485B
485C
485D
485E
NIC
Enumeration
Sets PXE boot from Add-on NIC adapter to onboard
NIC.
PCIe Generation Sets the PCI signaling rate at Gen3 8.0 Gigabits
bandwidth.
PCIe Generation Sets the PCI signaling rate at Gen2 5.0 Gigabits
bandwidth.
PCIe Generation Sets the PCI signaling rate at Gen1 2.5 Gigabits
bandwidth.
Reboot on WOL Disables ROW. (default)
(ROW)
The ROW repurposes the Wake on LAN (WOL)
signal to reboot the system board when the system is
in S0/S3 state.
485F
4860
Reboot on WOL Enables ROW.
(ROW)
ROW repurposes the WOL signal to reboot the
system board when the system is in S0/S3 state. When
a WOL packet is received by the NIC, the wake up
signal generated by the NIC shall cause a hardware
reboot of the system board.
USB PORT with Allows you to electrically disable the internal USB port
BMC
which contacts to BMC.
136
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
USB PORT with Allow the users to electrically enable the internal USB
BMC port which contacts to BMC.
Description
4861
4870
4871
4873
Force PXE Boot Disables PXE to be the boot device only.
only
Force PXE Boot Enables PXE to be the boot device only. The system
only
retrying to boot from PXE device.
Active Processor This field controls the number of enabled 16 cores in
Cores
each processor. By default, the maximum number of
cores per processor will be enabled.
4877
4878
PCIe Slot1
PCIe Slot1
Allows you to electrically disable PCIe Slot1.
Allows you to electrically enable PCIe Slot1 and
option ROM initialization.
4879
487A
PCIe Slot2
PCIe Slot2
Allows you to electrically disable PCIe Slot2.
Allows you to electrically enable PCIe Slot2 and
option ROM initialization.
487B
487C
PCIe Slot3
PCIe Slot3
Allows you to electrically disable PCIe Slot3.
Allows you to electrically enable PCIe Slot3 and
option ROM initialization.
487F
4880
Mezzanine Slot
Mezzanine Slot
Allows you to electrically disable Mezzanine Slot.
Allows you to electrically enable Mezzanine Slot and
option ROM initialization.
4881
4882
4883
4884
4885
4886
4887
1st Boot Device Sets the hard-drive as the first boot device.
1st Boot Device Sets RAID as the first boot device.
1st Boot Device Sets a USB storage device as the first boot device.
1st Boot Device Sets a CD/DVD ROM as the first boot device.
2nd Boot Device Sets a network device as the 2nd boot device.
2nd Boot Device Sets the hard-drive as the 2nd boot device.
2nd Boot Device Sets RAID as the 2nd boot device.
Using the System Setup Program
137
Table 2-1. D4 Token Table (continued)
Setup Option Description
Token
4888
4889
488A
488B
488C
488D
488E
488F
4890
4891
4892
4893
4894
4895
4896
4897
4898
48A0
2nd Boot Device Sets a USB storage device as the 2nd boot device.
2nd Boot Device Sets the CD/DVD ROM as the 2nd boot device.
3rd Boot Device Sets the network device as the 3rd boot device.
3rd Boot Device Sets the hard-drive as the 3rd boot device.
3rd Boot Device Sets RAID as the 3rd boot device.
3rd Boot Device Sets a USB storage device as the 3rd boot device.
3rd Boot Device Sets the CD/DVD ROM as the 3rd boot device.
4th Boot Device Sets the network device as the 4th boot device.
4th Boot Device Sets the hard-drive as the 4th boot device.
4th Boot Device Sets RAID as the 4th boot device.
4th Boot Device Sets a USB storage device as the 4th boot device.
4th Boot Device Sets the CD/DVD ROM as the 4th boot device.
5th Boot Device Sets the network device as the 5th boot device.
5th Boot Device Sets the hard-drive as the 5th boot device.
5th Boot Device Sets RAID as the 5th boot device.
5th Boot Device Sets a USB storage device as the 5th boot device.
5th Boot Device Sets the CD/DVD ROM as the 5th boot device.
ACPI SPMI Table Disables the ACPI SPMI Table for BMC ROM
update.
48A1
48A2
48A3
48A4
ACPI SPMI Table Enables the ACPI SPMI Table for IPMI driver
installation.
BMC LAN Port
Configuration
Sets BMC LAN Port to Dedicated-NIC.
BMC LAN Port
Configuration
Sets BMC LAN Port to Shared-NIC.
BMC NIC IP
Source
Sets BMC LAN to get LAN IP from Static mode.
138
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
48A5
BMC NIC IP
Source
Sets BMC LAN to get LAN IP from DHCP mode.
48A6
48A7
48A8
48A9
48AA
IPv6 Mode
IPv6 Mode
Disables IPv6 internet protocol support.
Enables IPv6 internet protocol support.
IPv6 AutoConfig Disables IPv6 auto configuration.
IPv6 AutoConfig Enables IPv6 auto configuration.
Serial Port Mode Sets the console redirection baud rate to 3,8400 bits
per second.
48AB
48AC
48AD
48AE
Flow Control
Flow Control
Flow Control
Terminal Type
Selects none as the flow control for console
redirection.
Selects hardware as the flow control for console
redirection.
Selects software as the flow control for console
redirection.
The BIOS console redirection, if enabled, operates in
VTUTF8 emulation model. See also tokens BFh, C0h,
and D7h.
48AF
48B0
48B1
48B2
48B3
48B4
VT-UTF8 Combo Disables VT-UTF8 Combination Key Support for
Key Support ANSI/VT100 terminals.
VT-UTF8 Combo Enables VT-UTF8 Combination Key Support for
Key Support
ANSI/VT100 terminals.
Event logging
Disables BIOS to log system events to BMC, errors
include ECC/PCI/PCIe/HT…etc.
Event logging
NMI on Error
NMI on Error
Enables BIOS to log system events to BMC, errors
include ECC/PCI/PCIe/HT…etc.
Disables BIOS to generate NMI when PCIe
uncorrectable errors occur.
Enables BIOS to generate NMI when PCIe
uncorrectable errors occur.
Using the System Setup Program
139
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
48B5
Memory
Operating Voltage 1.25 volts.
Indicates all DIMMs in the system are operating at
48C0
48C1
48C2
48C3
48C8
48C9
48CA
48CB
48CC
48CD
48D0
Frequency Ratio Sets frequency multiplier as maximum level.
Frequency Ratio Downgrades frequency multiplier one level.
Frequency Ratio Downgrades frequency multiplier two levels.
Frequency Ratio Downgrades frequency multiplier three levels.
QPI Frequency
QPI Frequency
QPI Frequency
QPI Frequency
QPI Frequency
QPI Frequency
Sets the QPI frequency runs at maximum speed.
Sets the QPI frequency runs at 4.800GT.
Sets the QPI frequency runs at 5.866GT.
Sets the QPI frequency runs at 6.400GT.
Sets the QPI frequency runs at 7.200GT.
Sets the QPI frequency runs at 8.000GT.
Energy Efficient Controls the energy efficient policy as performance
Policy
profile to configure all necessary settings. This option
is supported for processor power management that is
independent of the entire OS.
48D1
48D2
Energy Efficient Controls the energy efficient policy as balance profile
Policy
to configure all necessary settings. This option is
supported for processor power management that is
independent of the entire OS. (default)
Energy Efficient Controls the energy efficient policy as low power
Policy
profile to configure all necessary settings. This option
is supported for processor power management that is
independent of the entire OS.
48D3
48D4
48D8
Direct Cache
Access
Disables the Direct Cache Access.
Direct Cache
Access
Enables the Direct Cache Access.
Load Customized Requests a customized default of SETUP values on
Defaults the next boot.
140
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
48DA
Save Customized Saves current settings to customized defaults of
Defaults
N/A
SETUP on next boot.
48DB
48DC
48DD
Requests maximum performance settings of SETUP
values on the next boot.
N/A
N/A
Requests a energy efficiency settings of SETUP values
on the next boot.
Requests HPCC efficiency settings of SETUP values
on the next boot. Dell will provide the settings before
A-can BIOS.
48DE
48DF
48E0
48E1
48E2
48E3
48E4
48E5
48E6
48E7
48E8
Shell
Requests the EFI Shell as first boot device on the next
boot.
Dell ePSA
Requests auto launches ePSA (Enhanced Preboot
Diagnostic Tool System Assessment) diagnostic tool on the next boot.
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
Use NIC3 as the 1st PXE boot device on the next boot
followed by NIC1.
Use NIC4 as the 1st PXE boot device on the next boot
followed by NIC1.
Use NIC5 as the 1st PXE boot device on the next boot
followed by NIC1.
Use NIC6 as the 1st PXE boot device on the next boot
followed by NIC1.
Use NIC7 as the 1st PXE boot device on the next boot
followed by NIC1.
Use NIC8 as the 1st PXE boot device on the next boot
followed by NIC1.
Use HDD1 as the 1st HDD boot device on the next
boot.
Use HDD2 as the 1st HDD boot device on the next
boot.
Use HDD3 as the 1st HDD boot device on the next
boot.
Using the System Setup Program
141
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
48E9
N/A
Use HDD4 as the 1st HDD boot device on the next
boot.
48EA
48EB
48EC
48ED
48EE
48EF
48F0
48F1
48F2
48F3
48F4
48F5
48F6
48F7
48F8
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
N/A
Use HDD5 as the 1st HDD boot device on the next
boot.
Use HDD6 as the 1st HDD boot device on the next
boot.
Use RAID HDD1as the 1st RAID boot device on the
next boot.
Use RAID HDD2 as the 1st RAID boot device on the
next boot.
Use RAID HDD3 as the 1st RAID boot device on the
next boot.
Use RAID HDD4 as the 1st RAID boot device on the
next boot.
Use RAID HDD5 as the 1st RAID boot device on the
next boot.
Use RAID HDD6 as the 1st RAID boot device on the
next boot.
Use RAID HDD7 as the 1st RAID boot device on the
next boot.
Use RAID HDD8 as the 1st RAID boot device on the
next boot.
Use RAID HDD9 as the 1st RAID boot device on the
next boot.
Use RAID HDD10 as the 1st RAID boot device on the
next boot.
Use RAID HDD11 as the 1st RAID boot device on the
next boot.
Use RAID HDD12 as the 1st RAID boot device on the
next boot.
Use RAID HDD13 as the 1st RAID boot device on the
next boot.
142
Using the System Setup Program
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
48F9
N/A
Use RAID HDD14 as the 1st RAID boot device on the
next boot.
48FA
48FB
N/A
N/A
Use RAID HDD15 as the 1st RAID boot device on the
next boot.
Use RAID HDD16 as the 1st RAID boot device on the
next boot.
48FC
48FD
4900
N/A
Use HDD7 as the 1st boot device on the next boot.
Use HDD8 as the 1st boot device on the next boot.
N/A
PCIe Slot1
Enables the PCIe expansion slot1 without executing
the option ROM initialization.
4901
4902
4903
4904
4910
4911
4912
4913
4914
4915
PCIe Slot2
Enables the PCIe expansion slot2 without executing
the option ROM initialization.
PCIe Slot3
Enables the PCIe expansion slot3 without executing
the option ROM initialization.
PCIe Slot4
Enables the PCIe expansion slot4 without executing
the option ROM initialization.
Mezzanine Slot
Enables the mezzanine card expansion slot without
executing the option ROM initialization.
Chassis Level
Capping
Disables the chassis level capping function.
Chassis Level
Capping
Enables the chassis level capping function. (default)
Sled Level Policy Selects chassis level as the sled level policy when an
emergency throttling event is triggered. (default)
Sled Level Policy Selects throttling as the sled level policy when an
emergency throttling event is triggered.
Sled Level Policy Selects power off as the sled level policy when an
emergency throttling event is triggered.
Sled Level Policy Sets sled level policy to do nothing when an
emergency throttling event is triggered.
Using the System Setup Program
143
Table 2-1. D4 Token Table (continued)
Token
Setup Option
Description
4916
Chassis Level
Policy
Selects throttling as the chassis level policy when an
emergency throttling event is triggered. (default)
4917
Chassis Level
Policy
Selects power off as the chassis level policy when an
emergency throttling event is triggered.
4918
4919
491A
491B
491C
N/A
N/A
Disables clock spread spectrum. (default)
Enables clock spread spectrum.
Disables the PCIe memory 64-bit decode option.
Enables the PCIe memory 64-bit decode option.
Automatically configures to PCIe memory 64-bit
decode option.
4875
Perfmon and
DFX Devices
Disables Perfmon and DFX Devices.
4876
Perfmon and
DFX Devices
Enables Perfmon and DFX Devices.
4B00h
Prevent Back-
flash
When enabled, will prohibit the system BIOS to
downgrade to version 2.1.0 or earlier version.
NOTE: You will not be able to change the setting once
the feature is enabled.
4B01h
Prevent Back-
flash
By default, this feature is set to disabled for the
compliance of updating the system BIOS. This token
works with the password jumper when the jumper is
set to enabled. When the setting is disabled, the
system BIOS can be updated to any revision that
contains a valid digital signature.
144
Using the System Setup Program
IPMI Command List
The following tables include all commands defined in the IPMI v2.0
specifications. All mandatory commands and some optional functions are
supported. Special functions beyond the scope of IPMI v2.0 are implemented
as original equipment manufacturer (OEM) commands.
In the O/M column:
•
•
•
M = Mandatory in the IPMI spec and is implemented.
O = Optional command supported in this implementation.
N = Not supported in this implementation.
See the Deployment Toolkit Version 1.3 User's Guide for additional
information about installing and using the DTK utilities, and the
Deployment Toolkit Version 1.3 Command Line Interface Reference Guide
for a complete list of all valid options, suboptions, and arguments for using
the BMCCFG.EXE to configure and manage your BMC.
NOTE: For more information about the standard IPMI tool commands, see
ipmitool.sourceforge.net/manpage.html.
Table 2-2. IPMI Device Global Commands (NetFn: 0x06H)
Command
NetFn
App
App
App
App
App
App
App
App
App
App
App
Code
IPMI 2.0 BMC
Get Device ID
0x01h
0x02h
0x03h
0x04h
0x05h
0x06h
0x07h
0x08h
0x09h
0x0Ah
0x0Bh
M
M
O
O
M
O
O
O
O
O
O
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Broadcast Get Device ID
Cold Reset
Warm Reset
Get Self Test Results
Manufacture Test On
Get ACPI Power State
Get Device GUID
Get NetFn Support
Get Command Support
Get Command Sub-function Support
Using the System Setup Program
145
Table 2-2. IPMI Device Global Commands (NetFn: 0x06H)(continued)
Command
NetFn
Code
IPMI 2.0 BMC
Get Configurable Commands
App
0x0C
O
O
O
O
O
O
O
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Get Configurable Command Sub-functions App
0x0Dh
0x60h
0x61h
0x62h
0x63h
0x64h
Set Command Enables
App
App
App
App
App
Get Command Enables
Set Command Sub-function Enables
Get Command Sub-function Enables
Get OEM NetFn IANA Support
Table 2-3. BMC Watchdog Timer Commands (NetFn: 0x06H)
Command
NetFn
App
App
App
Code
IPMI2.0 BMC
Reset Watchdog Timer
Set Watchdog Timer
Get Watchdog Timer
0x22h
0x24h
0x25h
M
M
M
Yes
Yes
Yes
Table 2-4. BMC Device and Messaging Commands (NetFn: 0x06H)
Command
NetFn
App
App
App
App
App
App
App
App
Code
IPMI 2.0 BMC
Set BMC Global Enables
Get BMC Global Enables
Clear Message Buffer Flags
Get Message Buffer Flags
Enable Message Channel Receive
Get Message
0x2Eh
0x2Fh
0x30h
0x31h
0x32h
0x33h
0x34h
0x35h
M
M
M
M
O
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
M
M
O
Send Message
Read Event Message Buffer
146
Using the System Setup Program
Table 2-5. BMC Device and Messaging Commands (NetFn: 0x 06H) (continued)
Command
NetFn
App
App
App
App
Code
IPMI2.0 BMC
Get BT Interface Capabilities
Get System GUID
0x36h
0x37h
0x58h
0x59h
0x38h
0x39h
0x3Ah
0x3Bh
0x3Ch
0x3Dh
0x3Fh
0x40h
0x41h
0x42h
0x43h
0x44h
0x45h
0x46h
0x47h
0x48h
0x49h
0x4Ah
0x4Bh
0x4Ch
0x4Dh
0x4Eh
M
M
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
O
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Set System Info Parameters
Get System Info Parameters
Get Channel Authentication Capabilities App
Get Session Challenge
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
App
Activate Session Command
Set Session Privilege Level Command
Close Session
Get Session Information
Get Authentication Code Command
Set Channel Access Commands
Get Channel Access Commands
Get Channel Info Command
Set User Access Commands
Get User Access Commands
Set User Name Commands
Get User Name Commands
Set User Password Commands
Active Payload Command
Deactivate Payload Command
Get Payload Activation Status
Get Payload Instance Info Command
Set User Payload Access
Get User Payload Access
Get Channel Payload Support
Using the System Setup Program
147
Table 2-5. BMC Device and Messaging Commands (NetFn: 0x 06H) (continued)
Command
NetFn
App
App
App
App
App
App
App
Code
IPMI2.0 BMC
Get Channel Payload Version
Get Channel OEM Payload Info
Master Write-Read I2C
0x4Fh
0x50h
0x52h
0x54h
0x55h
0x56h
0x57h
O
O
M
O
O
O
O
Yes
Yes
Yes
Yes
Yes
Yes
No
Get Channel Cipher Suites
Suspend/Resume Payload Encryption
Set Channel Security Keys
Get System Interface Capabilities
Table 2-6. Chassis Device Commands (NetFn: 0x00H)
Command
NetFn
Code
IPMI2.0 BMC
Get Chassis Capabilities
Get Chassis Status
Chassis 0x00h
Chassis 0x01h
Chassis 0x02h
Chassis 0x03h
Chassis 0x04h
Chassis 0x05h
Chassis 0x06h
Chassis 0x07h
Chassis 0x08h
Chassis 0x09h
Chassis 0x0Ah
Chassis 0x0Bh
Chassis 0x0Fh
M
M
M
O
O
O
O
O
O
O
O
O
O
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
Chassis Control
Chassis Reset
Chassis Identify
Set Chassis Capabilities
Set Power Restore Policy
Get System Restart Cause
Set System Boot Options
Get System Boot Options
Set Front Panel Button Enable
Set Power Cycle Interval
Get POH Counter
148
Using the System Setup Program
Table 2-7. Event Commands (NetFn: 0x04H)
Command
NetFn
S/E
Code
IPMI2.0 BMC
Set Event Receiver
Get Event Receiver
Platform Event
0x00h
0x01h
0x02h
M
M
M
Yes
Yes
Yes
S/E
S/E
Table 2-8. PEF/PET Alerting Commands (NetFn: 0x04H)
Command
NetFn
S/E
S/E
S/E
S/E
S/E
S/E
S/E
S/E
Code
IPMI2.0 BMC
Get PEF Capabilities
0x10h
0x11h
0x12h
0x13h
0x14h
0x15h
0x16h
0x17h
M
M
M
M
M
M
O
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Arm PEF Postpone Timer
Set PEF Configuration Parameters
Get PEF Configuration Parameters
Set Last Processed Event ID
Get Last Processed Event ID
Alert Immediate
PET Acknowledge
O
Table 2-9. Sensory Device Commands (NetFn: 0x04H)
Command
NetFn
S/E
S/E
S/E
S/E
S/E
S/E
S/E
S/E
S/E
Code
IPMI2.0 BMC
Get Device SDR Info
Get Device SDR
0x20h
0x21h
0x22h
0x23h
0x24h
0x25h
0x26h
0x27h
0x28h
O
O
O
O
O
O
O
O
O
No
No
No
Yes
Yes
Yes
Yes
Yes
Yes
Reserve Device SDR Repository
Get Sensor Reading Factors
Set Sensor Hysteresis
Get Sensor Hysteresis
Set Sensor Threshold
Get Sensor Threshold
Set Sensor Event Enable
Using the System Setup Program
149
Table 2-10. Sensory Device Commands (NetFn: 0x04H) (continued)
Command
NetFn
S/E
S/E
S/E
S/E
S/E
S/E
S/E
Code
IPMI2.0 BMC
Get Sensor Event Enable
Set Sensor Reading and Event Status
Re-arm Sensor Events
Get Sensor Event Status
Get Sensor Reading
Set Sensor Type
0x29h
0x30h
0x2Ah
0x2Bh
0x2Dh
0x2Eh
0x2Fh
O
O
O
O
M
O
O
Yes
Yes
Yes
Yes
Yes
No
No
Get Sensor Type
Table 2-11. FRU Inventory Device Commands (NetFn: 0x0AH)
Command
NetFn
Code
IPMI2.0 BMC
Get FRU Inventory Area Info
Read FRU Inventory Data
Write FRU Inventory Data
Storage 0x10h
Storage 0x11h
Storage 0x12h
M
M
M
Yes
Yes
Yes
Table 2-12. SDR Repository Commands (NetFn: 0x0AH)
Command
NetFn
Code
IPMI2.0 BMC
Get SDR Repository Info
Get SDR Repository Allocation Info
Reserve SDR Repository
Get SDR
Storage 0x20h
Storage 0x21h
Storage 0x22h
Storage 0x23h
Storage 0x24h
Storage 0x25h
Storage 0x26h
Storage 0x27h
Storage 0x28h
M
O
M
M
M
O
O
M
O
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Add SDR
Partial ADD SDR
Delete SDR
Clear SDR Repository
Get SDR Repository Time
150
Using the System Setup Program
Table 2-12. SDR Repository Commands (NetFn: 0x0AH) (continued)
Command
NetFn
Code
IPMI2.0 BMC
Set SDR Repository Time
Enter SDR Repository Update Mode
Exit SDR Repository Update Mode
Run Initialization Agent
Storage 0x29h
Storage 0x2Ah
Storage 0x2Bh
Storage 0x2Ch
O
O
O
O
Yes
No
No
Yes
Table 2-13. SEL Commands (NetFn: 0x40H)
Command
NetFn
Code
IPMI2.0 BMC
Get SEL Info
Storage 0x40h
Storage 0x41h
Storage 0x42h
Storage 0x43h
Storage 0x44h
Storage 0x45h
Storage 0x46h
Storage 0x47h
Storage 0x48h
Storage 0x49h
Storage 0x5Ah
Storage 0x5Bh
Storage 0x5Ch
Storage 0x5D
M
O
O
M
M
M
O
M
M
M
O
O
O
O
Yes
Yes
Yes
Yes
Yes
Get SEL Allocation Info
Reserve SEL
Get SEL Entry
Add SEL Entry
*
Partial Add SEL Entry
Delete SEL Entry
Clear SEL
No
Yes
Yes
Yes
Yes
No
No
No
No
Get SEL Time
Set SEL Time
Get Auxiliary Log Status
Set Auxiliary Log Status
Get SEL Time UTC Offset
Set SEL Time UTC Offset
* Support for Partial Add SEL is not required when Add SEL is supported.
Using the System Setup Program
151
Table 2-14. LAN Device Commands (NetFn: 0x0CH)
Command
NetFn
Code
IPMI2.0 BMC
Set LAN Configuration Parameters
(Note: Parameter 9 and 25 are not
supported.)
Transport 0x01h
M
Yes
Get LAN Configuration Parameters
(Note: Parameter 9 and 25 are not
supported.)
Transport 0x02h
M
Yes
Suspend BMC ARP
Transport 0x03h
Transport 0x04h
O
O
Yes
No
Get IP/UDP/RMCP Statistics
Table 2-15. Serial/Modem Device Commands (NetFn: 0x 0CH)
Command
NetFn
Code
IPMI2.0 BMC
Set Serial/Modem Configuration
Get Serial/Modem Configuration
Set Serial/Modem Mux
Transport 0x10h
Transport 0x11h
Transport 0x12h
Transport 0x13h
Transport 0x14h
Transport 0x15h
Transport 0x16h
Transport 0x17h
Transport 0x18h
Transport 0x20h
Transport 0x19h
Transport 0x20h
Transport 0x21h
Transport 0x1Ah
Transport 0x1Bh
Transport 0x1Ch
M
M
O
O
O
O
O
O
M
O
O
O
O
O
O
O
Yes
Yes
Yes
No
No
No
No
No
Yes
No
Yes
Yes
Yes
No
No
Yes
Get TAP Response Codes
Set PPP UDP Proxy Transmit Data
Get PPP UDP Proxy Transmit Data
Send PPP UDP Proxy Packet
Get PPP UDP Proxy Receive Data
Serial/Modem Connection Active
Callback
SOL Activating
Set SOL Configuration
Get SOL Configuration
Set User Callback Options
Get User Callback Options
Set Serial Routing Mux
152
Using the System Setup Program
Table 2-16. Command Forwarding Commands (NetFn: 0x0CH)
Command
NetFn
Code
IPMI2.0 BMC
Forwarded Command
Set Forwarded Commands
Get Forwarded Commands
Enable Forwarded Commands
Transport 0x30h
Transport 0x31h
Transport 0x32h
Transport 0x33h
O
O
O
O
Yes
Yes
Yes
Yes
Table 2-17. Firmware Update Commands (NetFn: 0x08H)
Command
NetFn
Code
IPMI2.0 BMC
Firmware Update Phase 1
Firmware Update Phase 2
Get Firmware Update Status
Get Firmware Version
Set Firmware Update Status
Firmware Update Phase 3
Firmware 0x10h
Firmware 0x11h
Firmware 0x12h
Firmware 0x13h
Firmware 0x16h
Firmware 0x21h
O
O
O
O
O
O
Yes
Yes
Yes
Yes
Yes
Yes
Table 2-18. GPGPU Setting Commands (NetFn: 0x30H)
Command
NetFn
0x30h
0x30h
LUN
0h
CMD
32h
33h
Privelege
Admin
Set GPGPU ID
Get GPGPU ID
0h
Admin
Table 2-19. Fresh Air Mode Setting Commands (NetFn: 0x30H)
Command
NetFn
CMD
O/M
O
Supported
Yes
Enable Fresh Air Mode
Get Fresh Air Status
Disable Fresh Air Mode
Firmware 43h
Firmware 44h
Firmware 43h
O
Yes
O
Yes
Using the System Setup Program
153
Power Management Settings
The system BIOS provides various options for power settings to help you save energy,
maximize system performance. The following table provides a guide for power
management settings.
Table 2-20. Power Management Settings
System Setup Menu Setting
Maximum Performance Energy Efficiency
(48DB)
(48DC)
Setup Page
Setting
Option
D4
Option
D4
Token
Token
Power
Management
Power Management
Max.
Performance
021F
Node
Manager
4800
Energy Efficiency Policy Performance 48D0 Low
Power
48D2
CPU
Configuration
Active Processor Cores All
026E
1/2
0233/
0232
Frequency Ratio
QPI Frequency
Turbo Mode
C State
Auto
48C0
48C8
01E8
024C
02A2
480A
480E
3
48C3
Auto
4.80GT/s 48C9
Disabled 01EA
Enabled 024B
Enabled 02A1
Enabled 480B
Enabled 480F
Enabled
Disabled
Disabled
Disabled
Disabled
Enabled
Enabled
C1E State
C6 State
C7 State
Direct Cache Access
48D4 Disabled 48D3
00D1 Disabled 00D2
Hyper-Threading
Technology
Adjacent Cache Line
Prefetch
Enabled
0172
Disabled 0171
Hardware Prefetcher
Enabled
Enabled
0174
Disabled 0173
Disabled 02C6
DCU Streamer
Prefetcher
02C5
DCU IP Prefetcher
Enabled
02CE Disabled 02CF
154
Using the System Setup Program
Table 2-20. Power Management Settings (continued)
System Setup Menu Setting Maximum Performance Energy Efficiency
(48DB)
(48DC)
Setup Page
Setting
Option
D4
Option
D4
Token
Token
Memory
Configuration
Memory Frequency
Auto
4823
4821
4828
800 MHz 4824
Disabled 4820
Enabled 4829
Memory Turbo Mode
Enabled
Disabled
Memory Throttling
Mode
Memory Operating
Voltage
1.5 V
02B6
4834
1.35V/
1.25V
02B7/
48B5
SATA
Configuration State
Embedded SATA Link Auto
1.5 Gbps 4835
Power Saving Features Disabled
0199
4840
4846
484C
4852
Enabled 019A
L0s & L1 4843
L0s & L1 4849
L0s & L1 484F
PCI
Configuration
PCIe Slot ASPM
Disabled
Disabled
Onboard LAN ASPM
Mezzanine Slot ASPM Disabled
NB-SB Link ASPM
PCIe Generation
Disabled
L1
4853
Gen3/Gen2
485B/ Gen1
485C
485D
Using the System Setup Program
155
SNMP
The Simple Network Management Protocol (SNMP) is an application layer
protocol that facilitates the monitoring and management of server enclosure
and the PDU device.
About MIB and Traps
A Management Information Base (MIB) is a collection of managed
information that is organized hierarchically. Managed entities are called
managed objects and are identified by object identifiers. Network
management protocols such as SNMP use MIBs to retrieve managed
information about managed nodes or devices. The managed information is
then transmitted to management applications through SNMP.
SNMP traps are used by managed nodes or devices to asynchronously report
events to the management software. When certain types of events occur, the
managed device sends a trap to the management software.
SNMP Support for the Server Enclosure Fan Controller Board
When an error occurs in the PowerEdge C8000 server enclosure that is
populated with compute sleds, the fan controller board (FCB) provides a
status update to the compute sled's BMC, and BMC send traps to the remote
client.
When an error occurs in the server enclosure that is fully populated with 5
storage sleds, SNMP sends a trap message to the remote client.
There is a common OID (object identifiers) defined in the MIB
(Management Information Base) file. Use the SNMP utility to get the
SNMPv2-MIB file and load the MIB files that are required for managing and
monitoring the server enclosure.
FCB Network Connection
By default, the FCB is configured to automatically obtain an IP address via
DHCP server. A special button-press-sequence MUST be defined that does
not conflict with legacy fan controller uses,
•
•
Long press in 4 seconds, service mode.
3 short presses in less than 5 seconds provide switch between default static
IP and reset to default
156
Using the System Setup Program
After FCB resets, all network and configuration settings restore back to their
default values. FCB is configured with the following default network settings.
•
•
IP address: 192.168.0.120
Subnet mask: 255.255.255.0
When the reset to default button is pressed, the FCB status and
identification indicator lights to indicate the following behaviors
•
Blinking amber (500 ms off/5 s on) — Restarts the FCB firmware and reset
to factory default is completed.
•
Blinking amber (250 ms off/5 s on) — Restores the default network
settings to their default values.
FCB Configuration Information
The FCB configuration information is stored in the FCB board's internal
EEPROM, instead of the Chassis FRU/EEPROM as it is board level
configuration. Please refer to file format as shown below. Keep all attributes
and key words of the configuration and only modify "value" if it is allowed.
Firmware will drop configuration file if configurations are incorrect when user
uploads the file.
For example, a configuration data should have the following information:
CONNECT.TYPE=STATIC/DHCP
IP=192.168.0.120
NETMASK=255.255.255.0
GATEWAY=192.168.0.1
TRAP.DESTINATION1=0.0.0.0
TRAP.DESTINATION2=0.0.0.0
TRAP.DESTINATION3=0.0.0.0
TRAP.DESTINATION4=0.0.0.0
TRAP.DESTINATION5=0.0.0.0
SNMP.RD.COMMUNITY.STR=public
SNMP.RW.COMMUNITY.STR=private
POWERCAPPING.R=3
POWERCAPPING.W_DELTA=20
POWERCAPPING.K_CNT=3
Using the System Setup Program
157
By default, the FCB controller uses DHCP to acquire an IP address. The
system MUST follow the same DHCP retry mechanism that exists in the
BMCs (any parameter needed for this MUST be stored in the configuration
file). DHCP client MUST retry forever.
FCB Firmware Behavior
The following table lists the FCB firmware behavior.
Table 2-21. FCB Firmware Behavior
System
Configuration
Safe Boot Code Firmware
Behavior
Operational Code Firmware
Behavior
Server enclosure
with storage sleds
only
• FCB firmware enables
network/SNMP service
• FCB firmware enables
network/SNMP service
• FCB firmware update is done • FCB firmware update is done
by TFTP via SNMP set object
property
by TFTP via SNMP set
object property
• FCB firmware detects sled
modules during initialization
only. When you replace a
storage sled with a compute
sled, the FCB controller
needs to reset to detect the
compute sled.
• Use the SNMP SET/GET
commands to request for a
specific variable
• FCB firmware send traps to
remote client when critical
errors occur.
• You can download or upload
the FCB configuration
information by TFTP via
SNMP set object property
• The reset to default button
works
• The firmware update may fail
but not be broken if you
install a compute sled into
the server enclosure while the
FCB firmware update is in
progress
• The reset to default button
works
158
Using the System Setup Program
Table 2-21. FCB Firmware Behavior
System
Configuration
Safe Boot Code Firmware
Behavior
Operational Code Firmware
Behavior
Server enclosure
with compute
sleds
• FCB firmware stays in safe
boot mode and waits for
BMC to update firmware.
• FCB firmware disables
network/SNMP service
• FCB firmware update is done
by the BMC
• FCB firmware detects sled
modules during initialization
only. When you replace a
compute sled, the FCB
controller needs to reset to
detect the new sled.
• FCB firmware updates status
to BMC via SC-BMC
protocol
• The firmware update may fail
but not be broken if you
install a compute sled into
the server enclosure while the
FCB firmware update is in
progress
• The reset to default button
does not work
• The reset to default button
does not work
Using the System Setup Program
159
FCB SNMP MIB
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
Common Status
read-only values:
ok, error,
v
v
Firmware Status
safeBoot
FW Version read-only string
v
v
v
v
Firmware Version
(OP code)
Safe Image
FW Version
read-only string
v
v
Firmware Version
(Safe Boot code)
Asset Tag
read-write string
Asset Tag, max string
length is 16 characters
Reset
read-write value: start
Firmware will reset
once this field is set
Server IP
read-write IpAddress
read-write string
v
v
v
v
TFTP server IP
File Name
max string length is
100 characters
Chassis
Identify
read-write integer
v
v
v
Chassis Identification
Initiate
Download
read-write value: start
Initiate download
Last Update read-only Values:
Status
v
Last update status,
firmware will check
header (CRC23) and
image (MD5) before
update, if checksum is
incorrect, this file will
be set as imageError.
na,
successfully,
error,
imageError,
start,
downloadIn
Progress,
download
Successfully,
download
Failed,
upgradeIn
Progress
Using the System Setup Program
161
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
FCB
Control
fc Initiate
Upload
read-write values:
FC/CPLD/
v
v
Initiate upload
NetConfig
power
Consumption
read-only Integer
v
v
Power consumption
fcpsu
Configuration
read-write values:
x1n1, x2n0
PSU Configuration,
X1n1: X+N=1+1
X2n0: X+N=2+0
enable
Manual Fan
Control
read-write values:
1/0
v
v
v
Default is disabled (0)
manual Fan
Control Duty
Cycle
read-write integer
read-only integer
Manual Fan Control
Duty Cycle, 0 - 100,
default 100
FCB
number Of
Fans
Number of FAN
FansTable
fan Index
not-
Fan Index
accessible
fan Status
read-only values:
ok, error
v
FAN Status
fan Speed
sled Index
Read-only integer
v
v
FAN Speed
Sled Index
not-
accessible
FCB
sled Type
read-only values:
ok, na,
v
Sled Type
Sleds
Table
storage,
dummy, psu
psu Index
not-
v
PSU Index
accessible
162
Using the System Setup Program
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
FCB
Internal
PSU Table
psu Status
read-only values:
ok, error, na,
acloss
v
PSU Status
psu Power
Consumption
read-only integer
v
v
PSU Power
Consumption
psu Max
Power
read-only integer
PSU Max Power
FCB-Trap trap Fresh Air
EnabledWith
All
Trap for Fresh Air
Enabled with All
Storage sleds
StorageSled
trap Inlet
Temperature
OverWarning
Trap for Inlet
Temperature Over
Warning
trap Inlet
Trap for Inlet
Temperature
OverWarning
Cleared
Temperature Over
Warning Cleared
trap Fan1
Speed
Trap for Fan 1 Speed
Warning
Warning
trap Fan2
Speed
Trap for Fan 2 Speed
Warning
Warning
trap Fan3
Speed
Trap for Fan 3 Speed
Warning
Warning
trap Fan4
Speed
Trap for Fan 4 Speed
Warning
Warning
trap Fan5
Speed
Trap for Fan 5 Speed
Warning
Warning
trap Fan6
Speed
Trap for Fan 6 Speed
Warning
Warning
Using the System Setup Program
163
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
FW Boot FW
Note
trap Fan1
Speed Waring
Cleared
Trap for FAN 1 Speed
Warning Cleared
trap Fan2
Speed Waring
Cleared
Trap for FAN 2 Speed
Warning Cleared
trap Fan3
Speed Waring
Cleared
Trap for FAN 3 Speed
Warning Cleared
trap Fan4
Speed Waring
Cleared
Trap for FAN 4 Speed
Warning Cleared
trap Fan5
Speed Waring
Cleared
Trap for FAN 5 Speed
Warning Cleared
trap Fan6
Speed Waring
Cleared
Trap for FAN 6 Speed
Warning Cleared
trap Fan1
Speed
Trap FAN 1 Speed
Problem
Problem
trap Fan2
Speed
Trap FAN 2 Speed
Problem
Problem
trap Fan3
Speed
Trap FAN 3 Speed
Problem
Problem
trap Fan4
Speed
Trap FAN 4 Speed
Problem
Problem
trap Fan5
Speed
Trap FAN 5 Speed
Problem
Problem
trap Fan6
Speed
Trap FAN 6 Speed
Problem
Problem
164
Using the System Setup Program
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
FW Boot FW
Note
FCB-Trap trap Fan1
Speed
Trap for FAN 1 Speed
Problem Cleared
Problem
Cleared
trap Fan2
Speed
Trap for FAN 2 Speed
Problem Cleared
Problem
Cleared
trap Fan3
Speed
Trap for FAN 3 Speed
Problem Cleared
Problem
Cleared
trap Fan4
Speed
Trap for FAN 4 Speed
Problem Cleared
Problem
Cleared
trap Fan5
Speed
Trap for FAN 5 Speed
Problem Cleared
Problem
Cleared
trap Fan6
Speed
Trap for FAN 6 Speed
Problem Cleared
Problem
Cleared
trap Internal
PSU1 ACLoss
Trap for Internal
PSU1 AC Lost
trap Internal
PSU2 ACLoss
Trap for Internal
PSU2 AC Lost
trap Internal
PSU3 ACLoss
Trap for Internal
PSU3 AC Lost
trap Internal
PSU4 ACLoss
Trap for Internal
PSU4 AC Lost
trap Internal
PSU1 ACLoss
Cleared
Trap for Internal
PSU1 AC Lost
Cleared
Using the System Setup Program
165
Table 2-22. FCB SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
FW Boot FW
Note
FCB-Trap trap Internal
PSU2 AC
Trap for Internal
PSU2 AC Lost
Cleared
Loss Cleared
trap Internal
PSU3 AC
Loss Cleared
Trap for Internal
PSU3 AC Lost
Cleared
trap Internal
PSU4 AC
Loss Cleared
Trap for Internal
PSU4 AC Lost
Cleared
trap Internal
PSU1 Failed
Trap for Internal
PSU1 Failed
trap Internal
PSU2 Failed
Trap for Internal
PSU2 Failed
trap Internal
PSU3 Failed
Trap for Internal
PSU3 Failed
trap Internal
PSU4 Failed
Trap for Internal
PSU4 Failed
trap Internal
PSU1 Failed
Cleared
Trap for Internal
PSU1 Failed Cleared
trap Internal
PSU2 Failed
Cleared
Trap for Internal
PSU2 Failed Cleared
trap Internal
PSU3 Failed
Cleared
Trap for Internal
PSU3 Failed Cleared
trap Internal
PSU4 Failed
Cleared
Trap for Internal
PSU4 Failed Cleared
NOTE: In the Common category, both FC and PMC provides common OID.
166
Using the System Setup Program
SNMP Support for the External PDU Power Management Controller
Board
The PowerEdge C8000 server enclosure is primarily connected to an external
PDU. The external PDU includes a power management controller (PMC)
board that allows you to monitor the PDU power supply modules over the
network. When an error occurs in the PDU, the PMC via SNMPv2 send
notifications to the remote client.
There is a common OID (object identifiers) defined in the MIB
(Management Information Base) file. Use the SNMP utility to get the
SNMPv2-MIB file and load the MIB files that are required for managing and
monitoring the PDU.
PMC Network Connection
By default, the PMC is configured to automatically obtain an IP address via
DHCP server. A special button-press-sequence MUST be defined that does
not conflict with legacy fan controller,
•
•
Long press in 4 seconds, service mode.
3 short presses in less than 5 seconds provide switch between default static
IP and reset to default
After PMC resets, all network and configuration settings restore back to their
default values. PMC is configured with the following default network
settings.
•
•
IP address: 192.168.0.120
Subnet mask: 255.255.255.0
The power/status indicator on the front of the PMC board displays the
following behaviors
•
Blinking amber (500 ms off/5 s on) — Restarts the PMC firmware and
reset to factory default is completed.
•
Blinking amber (250 ms off/5 s on) — Restores the default network
settings to their default values.
Using the System Setup Program
167
PMC Configuration Information
The PMC configuration information is stored in the PMC board's internal
EEPROM. You must use TFTP server to retrieve the configuration data and
then use Notepad or a text editor to view or change the configuration data.
For example, a configuration data should have the following information:
CONNECT.TYPE=STATIC/DHCP
IP=192.168.0.120
NETMASK=255.255.255.0
GATEWAY=192.168.0.1
TRAP.DESTINATION1=0.0.0.0
TRAP.DESTINATION2=0.0.0.0
TRAP.DESTINATION3=0.0.0.0
TRAP.DESTINATION4=0.0.0.0
TRAP.DESTINATION5=0.0.0.0
SNMP.RD.COMMUNITY.STR=public
SNMP.RW.COMMUNITY.STR=private
MANAGE.ACSOCKET.A.DEFAULT.POWER=ON/OFF
MANAGE.ACSOCKET.B.DEFAULT.POWER=ON/OFF
MANAGE.ACSOCKET.C.DEFAULT.POWER=ON/OFF
MANAGE.PDU.DEFAULT.POWER=ON/OFF
MANAGE.PSU.CONFIGURATION=5+1
By default, the PMC controller uses DHCP to acquire an IP address. The
system MUST follow the same DHCP retry mechanism that exists in the
BMCs (any parameter needed for this MUST be stored in the configuration
file). DHCP client MUST retry forever.
168
Using the System Setup Program
PMC Firmware Behavior
The following table lists the PMC firmware behavior.
Table 2-23. PMC Firmware Behavior
Safe Boot Code Firmware Behavior
Operational Code Firmware Behavior
• PMC firmware enables network/SNMP • PMC firmware enables network/SNMP
service
service
• PMC firmware update is done by TFTP • PMC firmware update is done by TFTP
via SNMP set object property
via SNMP set object property
• The reset to default button works
• Use the SNMP SET/GET commands to
request for a specific variable
• PMC firmware send traps to remote
client when critical errors occur.
• You can download or upload the PMC
configuration information by TFTP via
SNMP set object property
• The reset to default button works
Using the System Setup Program
169
PMC SNMP MIB
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
Common Status
read-only values:
ok, error,
v
v
Firmware Status
safeBoot
FW Version read-only string
v
v
v
v
Firmware Version (OP
code)
Safe Image
FW Version
read-only string
read-write string
v
v
Firmware Version
(Safe Boot code)
Asset Tag
Asset Tag, max string
length is 16 characters
Reset
read-write value:
start
Firmware will reset
once this field is set
Server IP
read-write Ip Address
read-write string
v
v
v
v
TFTP server IP
File Name
max string length is
100 characters
Chassis
Identify
read-write integer
v
v
Chassis Identification
InitiateDownl read-write value:
oad start
Initiate download
Using the System Setup Program
171
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
Common lastUpdateSta read-only Values:
v
v
Last update status,
firmware will check
header (CRC23) and
image (MD5) before
update, if checksum
is incorrect, this file
will be set as image
Error.
tus
na,
successfully,
error,
imageError,
start,
downloadIn
Progress,
download
Successfully,
downloadFai
led,
upgradeInPr
ogresspduUp
gradeSucces
sfully,
psuUpgrade
Successfully,
pduUpgrade
Failed,
psuUpgrade
Failed
pduUpgrade
Successfully,
psuUpgrade
Successfully,
pduUpgrade
Failed,
psuUpgrade
Failed
172
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC
PDU
read-only string
v
PDU firmware version
Firmware
Version
PDU Serial
Number
read-only string
v
v
PDU serial number,
only supports when
PDU version is
6.00.05 or later
PDU State
read-only values:
ok, error,
PDU state
bootLoader
PDU Power
State
read-write values:
on/off
v
v
v
v
PDU power state
PDU Default read-write values:
Power State
PDU Default Power
State
on/off
PDU Power
Consumption
read-only integer
Total PSU power,
Unit:W
pmc Initiate read-write vaules:
v
Initiate upload
Upload
pmc, config,
pdu, psu1,
psu2,
psu3, psu4,
psu5, psu6
pmc psu
Configuration
read-write values:
x4n2, x5n1
v
PSU configuration,
x4n2: X+N=4+2
x5n1: X+N=5+1
Using the System Setup Program
173
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PSUs
Table
Number Of
Psus
read-only integer
v
Number of PSU
PSU index
PSU status
PSUIndex
not-
integer
v
v
accessible
PSUStatus
read-only values:
ok, error, na,
acloss,
bootLoader
PSU
read-only string
v
PSU firmware version
Firmware
Version
PSU Serial
Number
read-only string
v
v
v
v
v
PSU serial number
PSU power state
PSU power good
PSU Power
State
read-only values:
on/off
PSU Power
Good
read-only values: ok,
error
PSU Power
Capacity
read-only integer
PSU power capacity,
Unit:W
PSU Power
Consumption
read-only integer
PSU power
consumption,
Unit:W
PSU Voltage read-only integer
PSU Current read-only integer
v
v
v
v
PSU voltage,
Unit:mV
PSU current,
Unit:mA
PSU
read-only integer
read-only integer
PSU temperature,
Unit:degrees C
Temperature
PSU Fan
Speed
PSU fan speed,
Unit:rpm
174
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
AC
Sockets
Table
Number Of
AC Sockets
read-only integer
v
Number of AC socket
AC socket index
AC socket power state
AC Socket
Index
not-
integer
v
v
v
accessible
AC Socket
Power State
read-write values:
on/off
AC Socket
DefaultPower
State
read-write values:
on/off
AC socket default
power state
PMC -
Traps
trap PSU1
Under
v
Trap for PSU1 under
voltage
Voltage
trap PSU2
Under
Voltage
V
v
Trap for PSU2 under
voltage
trap PSU3
Under
Trap for PSU3 under
voltage
Voltage
trap PSU4
Under
v
Trap for PSU4 under
voltage
Voltage
trap PSU5
Under
Voltage
V
V
V
Trap for PSU5 under
voltage
trap PSU6
Under
Voltage
Trap for PSU6 under
voltage
trap PSU1
Under
Trap for PSU1 under
voltage cleared
Voltage
Cleared
trap PSU2
Under
V
Trap for PSU2 under
voltage cleared
Voltage
Cleared
Using the System Setup Program
175
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU3
Under
V
Trap for PSU3 under
voltage cleared
Voltage
Cleared
trap PSU4
Under
Voltage
Cleared
V
V
V
Trap for PSU4 under
voltage cleared
trap PSU5
Under
Voltage
Cleared
Trap for PSU5 under
voltage cleared
trap PSU6
Under
Trap for PSU6 under
voltage cleared
Voltage
Cleared
trap PSU1
Over Voltage
V
V
V
V
V
V
V
Trap for PSU1 over
voltage
trap PSU2
Over Voltage
Trap for PSU2 over
voltage
trap PSU3
Over Voltage
Trap for PSU3 over
voltage
trap PSU4
Over Voltage
Trap for PSU4 over
voltage
trap PSU5
Over Voltage
Trap for PSU5 over
voltage
trap PSU6
Over Voltage
Trap for PSU6 over
voltage
trap PSU1
Over Voltage
Cleared
Trap for PSU1 over
voltage cleared
trap PSU2
Over Voltage
Cleared
V
Trap for PSU2 over
voltage cleared
176
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU3
Over Voltage
Cleared
V
Trap for PSU3 over
voltage cleared
trap PSU4
Over Voltage
Cleared
V
V
V
Trap for PSU4 over
voltage cleared
trap PSU5
Over Voltage
Cleared
Trap for PSU5 over
voltage cleared
trap PSU6
Over Voltage
Cleared
Trap for PSU6 over
voltage cleared
trap PSU1
Over Current
V
V
V
V
V
V
V
Trap for PSU1 over
current
trap PSU2
Over Current
Trap for PSU 2 over
current
trap PSU3
Over Current
Trap for PSU3 over
current
trap PSU4
Over Current
Trap for PSU4 over
current
trap PSU5
Over Current
Trap for PSU5 over
current
trap PSU6
Over Current
Trap for PSU6 over
current
trap PSU1
Over Current
Cleared
Trap for PSU1 over
current cleared
trap PSU2
Over Current
Cleared
V
V
Trap for PSU2 over
current cleared
trap PSU3
Over Current
Cleared
Trap for PSU3 over
current cleared
Using the System Setup Program
177
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU4
Over Current
Cleared
V
Trap for PSU4 over
current cleared
trap PSU5
Over Current
Cleared
V
V
V
Trap for PSU5 over
current cleared
trap PSU6
Over Current
Cleared
Trap for PSU6 over
current cleared
trap PSU1
Over
Trap for PSU1 over
temperature warning
Temperature
Warning
trap PSU2
Over
Temperature
Warning
V
V
V
V
V
Trap for PSU2 over
temperature warning
trap PSU3
Over
Temperature
Warning
Trap for PSU3 over
temperature warning
trap PSU4
Over
Temperature
Warning
Trap for PSU4 over
temperature warning
trap PSU5
Over
Temperature
Warning
Trap for PSU5 over
temperature warning
trap PSU6
Over
Trap for PSU6 over
temperature warning
Temperature
Warning
178
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU1
Over
Temperature
Warning
Cleared
V
Trap for PSU1 over
temperature warning
cleared
trap PSU2
Over
Temperature
Warning
Cleared
V
V
V
V
V
Trap for PSU2 over
temperature warning
cleared
trap PSU3
Over
Temperature
Warning
Cleared
Trap for PSU3 over
temperature warning
cleared
trap PSU4
Over
Temperature
Warning
Cleared
Trap for PSU4 over
temperature warning
cleared
trap PSU5
Over
Temperature
Warning
Cleared
Trap for PSU5 over
temperature warning
cleared
trap PSU6
Over
Temperature
Warning
Cleared
Trap for PSU6 over
temperature warning
cleared
trap PSU1
Over
Temperature
V
V
Trap for PSU1 over
temperature
trap PSU2
Over
Trap for PSU2 over
temperature
Temperature
Using the System Setup Program
179
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU3
Over
V
Trap for PSU3 over
temperature
Temperature
trap PSU4
Over
Temperature
V
V
V
V
Trap for PSU4 over
temperature
trap PSU5
Over
Temperature
Trap for PSU5 over
temperature
trap PSU6
Over
Temperature
Trap for PSU6 over
temperature
trap PSUN
Over
Trap PSU1 over
temperature cleared
Temperature
Cleared
trap PSUN
Over
Temperature
Cleared
V
V
V
V
V
Trap PSU2 over
temperature cleared
trap PSUN
Over
Temperature
Cleared
Trap PSU3 over
temperature cleared
trap PSUN
Over
Temperature
Cleared
Trap PSU4 over
temperature cleared
trap PSUN
Over
Temperature
Cleared
Trap PSU5 over
temperature cleared
trap
Trap PSU6 over
temperature cleared
PSUN Over
Temperature
Cleared
180
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU1
Under Fan
Speed
V
Trap for PSU1 under
FAN speed
trap PSU2
Under Fan
Speed
V
V
V
V
V
V
Trap for PSU2 under
FAN speed
trap PSU3
Under Fan
Speed
Trap for PSU3 under
FAN speed
trap PSU4
Under Fan
Speed
Trap for PSU4 under
FAN speed
trap PSU5
Under Fan
Speed
Trap for PSU5 under
FAN speed
trap PSU6
Under Fan
Speed
Trap for PSU6 under
FAN speed
trap PSU1
Under Fan
Speed
Trap for PSU1 under
FAN speed cleared
Cleared
trap PSU2
Under Fan
Speed
V
V
V
Trap for PSU2 under
FAN speed cleared
Cleared
trap PSU3
Under Fan
Speed
Trap for PSU3 under
FAN speed cleared
Cleared
trap PSU4
Under Fan
Speed
Trap for PSU4 under
FAN speed cleared
Cleared
Using the System Setup Program
181
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
trap PSU5
Under Fan
Speed
V
Trap for PSU5 under
FAN speed cleared
Cleared
trap PSU6
Under Fan
Speed
V
Trap for PSU6 under
FAN speed cleared
Cleared
Trap PSU1
Failure
V
V
V
V
V
V
V
V
V
V
V
V
Trap for PSU1 failure
Trap for PSU2 failure
Trap for PSU3 failure
Trap for PSU4 failure
Trap for PSU5 failure
Trap for PSU6 failure
Trap PSU2
Failure
Trap PSU3
Failure
Trap PSU4
Failure
Trap PSU5
Failure
Trap PSU6
Failure
Trap PSU1 Ac
Lost
Trap for PSU1 AC
lost
Trap PSU2 Ac
Lost
Trap for PSU2 AC
lost
Trap PSU3 Ac
Lost
Trap for PSU3 AC
lost
Trap PSU4 Ac
Lost
Trap for PSU4 AC
lost
Trap PSU5 Ac
Lost
Trap for PSU5 AC
lost
Trap PSU6 Ac
Lost
Trap for PSU6 AC
lost
182
Using the System Setup Program
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
Trap PSU
Mismatch
V
A mismatch between
PSU X+N
configuration and
populated PSU
Trap PSU1
Presence
Removed
V
V
V
v
Trap for PSU1
Presence Removed
Trap PSU2
Presence
Removed
Trap for PSU2
Presence Removed
Trap PSU3
Presence
Removed
Trap for PSU3
Presence Removed
Trap PSU4
Presence
Trap for PSU4
Presence Removed
Removed
Trap PSU5
Presence
Removed
V
V
V
V
V
V
Trap for PSU5
Presence Removed
Trap PSU6
Presence
Removed
Trap for PSU6
Presence Removed
Trap PSU1
Failure
Cleared
Trap for PSU1 Failure
Cleared
Trap PSU2
Failure
Cleared
Trap for PSU2 Failure
Cleared
Trap PSU3
Failure
Cleared
Trap for PSU3 Failure
Cleared
Trap PSU4
Failure
Trap for PSU4 Failure
Cleared
Cleared
Using the System Setup Program
183
Table 2-24. PMC SNMP MIB
Category
Object Name
Read/Write Value Type
Operation Safe
Note
FW
Boot FW
PMC -
Traps
Trap PSU5
Failure
V
Trap for PSU5 Failure
Cleared
Cleared
Trap PSU6
Failure
V
Trap for PSU6 Failure
Cleared
Cleared
Trap PSU1 Ac
Back
V
V
V
V
V
V
V
Trap for PSU1 AC
Back
Trap PSU2 Ac
Back
Trap for PSU2 AC
Back
Trap PSU3 Ac
Back
Trap for PSU3 AC
Back
Trap PSU4 Ac
Back
Trap for PSU4 AC
Back
Trap PSU5 Ac
Back
Trap for PSU5 AC
Back
Trap PSU6 Ac
Back
Trap for PSU6 AC
Back
Trap PSU
Mismatch
Normal
Trap for PSU
mismatch normal
184
Using the System Setup Program
Using the System Setup Program
185
186
Using the System Setup Program
3
Installing System Components
Safety Instructions
WARNING: Working on systems that are still connected to a power supply can be
extremely dangerous.
CAUTION: System components and electronic circuit boards can be damaged by
discharge of static electricity.
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
To avoid injury to yourself or damage to your system, follow these guidelines:
•
Always disconnect the system from the power outlet whenever you are
working inside the system.
•
If possible, wear a grounded wrist strap when you are working inside the
system. Alternatively, discharge any static electricity by touching the bare
metal chassis of the system case, or the bare metal body of any other
grounded appliance.
•
•
Hold electronic circuit boards by the edges only. Do not touch the
components on the board unless it is necessary to do so. Do not flex or
stress the circuit board.
Leave all components inside the static-proof packaging until you are ready
to use the component for the installation.
Installing System Components
187
•
Some cables have a connector with locking tabs; if you are disconnecting
this type of cable, press in on the locking tabs before you disconnect the
cable. As you pull connectors apart, keep them evenly aligned to avoid
bending any connector pins. Also, before you connect a cable, ensure that
both connectors are correctly oriented and aligned.
About the Illustrations
The illustrations used in this chapter identifies the component parts and does
not show step-by-step component removal or replacement instructions.
Recommended Tools
•
•
•
•
#1 Phillips screwdriver
#2 Phillips screwdriver
Torx drivers
Set of jeweler screwdrivers
188
Installing System Components
Inside the System
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: This system must be operated with the sled or sled blank installed to
make sure of proper cooling.
Figure 3-1. Inside the Server Enclosure — Top View
2
3
1
4
5
1
3
sled bays (10)
2
4
power management board
fan controller board
fan modules (3 fan module sets, each
fan module with 2 fans)
5
front panel board
Installing System Components
189
Sled Blank
CAUTION: To ensure proper airflow in the system, if a module is removed it
should be immediately replaced with another sled or sled blank.
Removing a Double-Wide Sled Blank
Squeeze and hold the release latches and slide the blank out of the enclosure.
See Figure 3-2.
Figure 3-2. Removing and Installing a Double-Wide Sled Blank
1
2
1
release latches (2)
2
double-wide sled blank
Installing a Double-Wide Sled Blank
Hold the blank with the guide rail facing forward. Slide the blank into the
enclosure until it is fully seated and the release latches snap into place.
See Figure 3-2.
190
Installing System Components
Removing a Single-Wide Sled Blank
1
Pull up on the sled blank latch at the bottom of the sled to disengage the
sled from the server enclosure. See Figure 3-3.
2
Using the handle, slide the sled out of the enclosure. See Figure 3-3.
Figure 3-3. Removing and Installing a Single-Wide Sled Blank
2
1
1
release latch
2
single-wide sled blank
Installing a Single-Wide Sled Blank
1
Orient the sled blank so that the release latch is in the bottom of the sled.
See Figure 3-3.
2
Slide the sled blank into the enclosure until the release latch snaps into
place. See Figure 3-3.
Installing System Components
191
Compute Sleds
Removing a Compute Sled
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: To ensure proper airflow in the system, if a sled is removed it should be
immediately replaced with another sled or sled blank.
CAUTION: Operating the system without a sled or sled blank installed can cause
the enclosure to overheat. See "Installing a Double-Wide Sled Blank" on page 190.
1
Power down the sled using OS commands or the Baseboard Management
Controller, and ensure that the sled’s power is off.
When the sled is powered off, its front-panel indicator is off.
2
3
Pull up on the compute sled release latch at the bottom of the sled to
disengage the sled from the server enclosure. See Figure 3-4 or Figure 3-5.
Using the handle, slide the sled out of the enclosure. See Figure 3-4 or
Figure 3-5.
192
Installing System Components
Installing a Compute Sled
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Orient the sled so that the release latch is in the bottom of the sled. See
Figure 3-4 or Figure 3-5.
Slide the new sled into the enclosure until the sled is fully seated and the
release latch snaps into place. See Figure 3-4 or Figure 3-5.
Storage Sled
Removing a Storage Sled
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: To ensure proper airflow in the system, if a sled is removed it should be
immediately replaced with another sled or sled blank.
CAUTION: Operating the system without a sled or sled blank installed can cause
the enclosure to overheat. See "Installing a Double-Wide Sled Blank" on page 190.
1
2
Pull and hold the storage sled release tab at the bottom of the sled to
disengage the sled from the server enclosure. See Figure 3-6.
Using the handle, slide the sled out of the enclosure. See Figure 3-6.
194
Installing System Components
Figure 3-6. Removing and Installing a C8000XD Storage Sled
2
1
1
release tab
2
handle
Installing a Storage Sled
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Orient the sled so that the release tab is in the bottom of the sled. See
Figure 3-6.
Slide the sled into the enclosure until the sled is fully seated and the tab
engages and locks the sled in place.
Installing System Components
195
Power Sled
NOTE: This section applies to PowerEdge C8000 server enclosure with internal
power source.
Enclosure Power Guidelines
Observe the following guidelines when connecting power to the enclosure:
•
Always connect the enclosure’s AC power sockets to a single power source,
switch, or PDU.
•
Make sure to install the power sleds and connect power to the enclosure
before you install any other sled.
Power Sled Installation Guidelines
Follow these guidelines when installing power sleds.
•
If a power supply is removed from the enclosure and the power supply
number in the enclosure is less than the required number of power
supplies, all sleds in the enclosure will be throttled until the failed PSU
module is replaced. For example, in a 2+2 PSU configuration, if three PSU
modules fail, it would trigger the sleds in the enclosure to throttle. When
the failed PSU modules are replaced the enclosure exits power throttling
mode and resume operating normally.
NOTE: Throttling reduces power consumption of the sled modules by changing the
processor duty cycle, thereby reducing sled performance. When a throttling event
occurs the event is logged in the System Event Log (SEL). See the Using the
Baseboard Management Controller Guide at dell.com/support/manuals for more
information.
•
The following table lists the supported configuration where power supply
redundancy is guaranteed.
NOTE: Configurations higher than indicated in the table may change the power
supply mode to non-redundant. In non-redundant mode, if the power requirement
exceeds the installed system power capacity, BIOS will throttle the processors. If
CPU power capping is enabled, throttling can occur on processors that exceed the
cap value. See "Power Management" on page 78 for more information.
196
Installing System Components
Table 3-1. PSU and Power Sled Support Matrix
PSU Max. Redundant Sled Maintenance Conditions
Config Power Power Shutdown
4+0
3+1
2+2
5600 W Not
supported
Required Shut down all sleds in the enclosure before
removing or replacing a power sled(s).
4200 W Supported Required Shut down all sleds in the enclosure before
removing or installing a power sled(s).
2800 W Supported Not
Power sleds can be removed or replaced
required without powering off the sled(s) in the
enclosure.
2+1
2800 W Supported Required Shut down all sleds in the enclosure before
removing or replacing the power sled with
two PSU modules capacity.
a
2+0
2800 W Not
supported
Required Shut down all sleds in the enclosure before
removing or replacing a power sled(s).
1+1
1400 W Supported Not
Power sled can be removed or replaced
required without powering off the sled in the
enclosure.
a. In a 2+0 PSU configuration, a power sled blank or a C8220 compute sled must be installed in the
adjacent unoccupied bay to maintain proper cooling airflow in the enclosure.
Installing System Components
197
Inside a Power Sled
Figure 3-7. Inside a Power Sled
1
3
6
8
PSU2/4 module assembly
2, 4 AC power cable
front power distribution board
back power distribution board
5
7
9
PSU1/3 module assembly
power interposer board
power distribution cables
back power distribution board
signal cable
10
front power distribution board
signal cable
11
LED cable
Removing a Power Sled
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: To ensure proper airflow in the system, if a sled is removed it should be
immediately replaced with another sled or sled blank.
CAUTION: Operating the system with a power sled removed for extended periods
of time can cause the system to overheat.
198
Installing System Components
WARNING: The PSU modules in the power sled may produce high voltages and
energy hazards, which can cause bodily harm. Only trained service technicians
are authorized to remove any components inside the power sled.
WARNING: To reduce the risk of personal injury from hot surfaces, observe the
thermal labels on each PSU module. You can also consider wearing protective
gloves.
WARNING: To reduce the risk of personal injury from electric shock hazards, do
not open the PSU modules. There are no serviceable parts inside the PSU modules.
CAUTION: Remove and replace only one power sled at a time.
NOTE: The wattage of a PSU module is listed on its regulatory label.
1
2
Power down all sled(s) in the server enclosure using OS commands or the
Baseboard Management Controller, and ensure the sled’s power is off.
For power sleds in redundant configuration, you can remove and replace
the power sled without shutting down the compute sleds in the enclosure.
See Table 3-1 for the power sled maintenance conditions.
Locate the power sled to be removed or the power sled that contains the
failed power supply module. If a power supply module is faulty the status
indicator lights up amber.
3
4
5
Wait one minute and then verify that the indicators on the enclosure and
power sled are extinguished.
Pull up on the power sled release latch at the bottom of the sled to
disengage the sled from the server enclosure. See Figure 3-8.
Using the handle, slide the sled out of the enclosure. See Figure 3-8.
Installing System Components
199
Figure 3-8. Removing and Installing a Power Sled
2
1
1
release latch
2
handle
Installing a Power Sled
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Orient the sled so that the release latch is at the bottom of the sled.
See Figure 3-8.
Slide the new sled into the enclosure until the sled is fully seated and the
release latch snaps into place. See Figure 3-8.
200
Installing System Components
Removing the PSU1/3 Module Assembly
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
warranty. Read and follow the safety instructions that came with the product.
internal fans that provide thermal cooling for the PSU modules in the power sleds.
A PSU module must be replaced if an internal fan failure occurs.
1
2
Remove the power sled. See "Removing a Power Sled" on page 198.
Remove the two screws securing the PSU1/3 module assembly.
See Figure 3-9.
3
4
5
Slide the module assembly back to free it from the metal guides on the
sled tray. See Figure 3-9.
Lift the module assembly from the sled tray and then disconnect the
power cable from the power supply. See Figure 3-9.
Remove the module assembly from the sled tray. See Figure 3-9.
Figure 3-9. Removing and Installing a PSU1/3 Module Assembly
Installing System Components
201
1
3
PSU power cable
thumbscrews (2)
2
4
PSU1/3 module assembly
air baffle
Figure 3-10. Cable Routing for PSU1/3 Module Assembly
1
3
5
PSU1/3 status indicator
power connector on PSU2/4 module
power cable
2
4
6
PSU2/4 status indicator
power connector on PSU1/3 module
PSU LED connector on power
interposer board
7
PSU LED connector on power
interposer board
202
Installing System Components
Installing the PSU1/3 Module Assembly
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
cable routing.
2
3
Lower the module assembly so that the metal guides on the sled tray fit
into the slots on the power supply bracket.
4
Slide the module assembly forward until the metal guides engage into the
slots on the PSU bracket and ensure that the module assembly is fully
seated into the back power distribution board.
NOTE: Make sure the air baffle is properly seated and the power cable is neatly
tucked into place. See Figure 3-9.
5
Replace the two screws securing the module assembly to the sled tray.
See Figure 3-9.
NOTE: After installing a power sled with a new PSU module, allow several seconds
for the system to recognize the power supply and to determine if it is working
properly. The status indicator turns green to signify that the module is functioning
properly.
Removing the PSU2/4 Module Assembly
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Remove the power sled. See "Removing a Power Sled" on page 198.
Remove the screw and thumbscrew securing the PSU2/4 module assembly.
See Figure 3-11.
3
Slide the module assembly back to free it from the metal guides on the
sled tray.
Installing System Components
203
4
5
Lift the module assembly from the sled tray and then disconnect the
power cable from the power supply. See Figure 3-11.
Remove the module assembly from the sled tray. See Figure 3-11.
Figure 3-11. Removing and Installing a PSU2/4 Module Assembly
1
3
5
PSU power cable
thumbscrew
air baffle
2
4
screw
PSU2/4 module assembly
Installing the PSU2/4 Module Assembly
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Connect the power cable to the new PSU module. See Figure 3-10 for
cable routing.
Position the PSU2/4 module assembly on top of the sled tray.
204
Installing System Components
3
4
Slide the module assembly forward until the metal guides engage into the
slots on the PSU bracket and ensure that the module assembly is fully
seated into the front power distribution board.
NOTE: Make sure the air baffle is properly seated and the power cable is neatly
tucked into place. See Figure 3-11.
Replace the screws securing the module assembly to the sled tray.
See Figure 3-11.
Removing the PSU Module
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
internal fans that provide thermal cooling for the PSU modules in the power sleds. A
The installation and removal procedures of a power supply module on a
PSU1/3 and PSU2/4 module assembly are similar.
1
2
Remove the power sled. See "Removing a Power Sled" on page 198.
Remove the PSU module assembly containing the failed power supply.
See "Removing the PSU1/3 Module Assembly" on page 201 or "Removing
the PSU2/4 Module Assembly" on page 203.
3
4
Pull open the handle on the PSU module. See Figure 3-12.
Press down on the release lever and pull the module out of the bracket.
See Figure 3-12.
Installing System Components
205
Figure 3-12. Removing and Installing a PSU Module
1
3
handle
2
4
PSU module
release lever
PSU bracket
Installing the PSU Module
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
3
Slide the new PSU module into the PSU bracket. See Figure 3-12.
Close the handle on the PSU module. See Figure 3-12.
Replace the PSU module on the sled tray. See "Installing the PSU1/3
Module Assembly" on page 203 or "Installing the PSU2/4 Module
Assembly" on page 204.
NOTE: After installing a power sled with a new PSU module, allow several seconds
for the system to recognize the power supply and to determine if it is working
properly. The status indicator turns green to signify that the module is functioning
properly.
206
Installing System Components
Fan Modules
The PowerEdge C8000 server enclosure includes three pairs of hot-swappable
fan modules that provide the system with redundant cooling source. Each fan
module contains two separate cooling fans. All three fan modules must be
installed at all times to ensure proper cooling.
NOTE: If a fan module is removed from the enclosure, all sleds in the enclosure will
be throttled until the fan module is replaced. If two fan modules fail at the same time
and are not replaced within 90 seconds, the enclosure will shutdown automatically.
For more information on troubleshooting a fan module(s), see the "Troubleshooting
Enclosure Fan Modules" on page 257.
Removing a Fan Module
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: To ensure proper airflow in the system, if a fan module is removed it
should be immediately replaced with another module.
WARNING: Replace a fan module within 90 seconds to avoid system shutdown.
1
Identify the failed fan module using the back-panel fan module indicators.
See Figure 1-14.
CAUTION: Use caution when handling the fan module until the fan blades stop
spinning.
WARNING: When removing the fan module, keep your hands and fingers away
from the spinning fan blades.
2
3
Loosen the two thumbscrews securing the fan module you wish to replace.
Pull out the fan module from the fan bay. See Figure 3-13.
Installing System Components
207
Figure 3-13. Removing and Installing the Fan Module
1
2
1
fan module
2
thumbscrews (2)
Installing a Fan Module
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Inspect the fan for debris before installing the fan in the fan bay.
Slide the fan module into the fan bay until it is fully seated. See
Figure 3-13.
3
Tighten the two thumbscrews to secure the fan module. See Figure 3-13.
208
Installing System Components
Removing the Front Panel Board
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Remove the two screws securing the front panel board cover. See
Figure 3-14.
Remove the cover from the enclosure.
Figure 3-14. Removing and Installing the Front Panel Board Cover
1
front panel board cover
2
screws (2)
Installing System Components
209
3
4
Disconnect the front panel board cable. See Figure 3-15.
Remove the front panel board from the enclosure. See Figure 3-15.
Figure 3-15. Removing and Installing the Front Panel Board
1
2
1
front panel board
2
front panel board cable
Installing the Front Panel Board
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
Attach the new front panel board to its enclosure standoffs. See
Figure 3-15.
2
3
4
Connect the front panel board cable to the board. See Figure 3-15.
Position the front panel board cover over the board. See Figure 3-14
Replace the two screws securing the front panel board cover to the
enclosure. See Figure 3-14.
210
Installing System Components
Fan Controller Board
Removing the Fan Controller Board
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
Loosen the two thumbscrews that secure the fan controller board tray to
the server enclosure. See Figure 3-16.
2
3
4
Pull out the fan controller board tray from the enclosure.
Remove the four screws securing the fan controller board.
Remove the fan controller board from its tray. See Figure 3-16.
Figure 3-16. Removing and Installing the Fan Controller Board
1
2
3
4
1
3
fan controller board
thumbscrews (2)
2
4
screws (4)
fan controller board tray
Installing System Components
211
Installing the Fan Controller Board
CAUTION: Many repairs may only be done by a certified service technician. You
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
system, download and install the latest fan controller board firmware version from
dell.com/support. Follow the instructions included in the file download to install the
update on your system.
1
2
Place the fan controller board into the fan controller bay. See Figure 3-16.
Replace the four screws securing the fan controller board to its tray. See
Figure 3-16.
3
4
Insert the fan controller board assembly into its enclosure bay.
Secure the fan controller board assembly to the enclosure with the two
thumbscrews. See Figure 3-16.
Backplane/Fan Bay Cage
Removing the Backplane/Fan Bay Cage
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Disconnect the server enclosure from the electrical outlet or PDU.
Remove the fan controller board. See "Removing the Fan Controller
Board" on page 211.
212
Installing System Components
4
5
Open the front panel board cable retaining clip and disconnect the cable
from the power management board. See Figure 3-18. For server enclosure
with external power source, see Figure 3-19.
Disconnect the fan cable from the power management board.
See Figure 3-18. For server enclosure with external power source, see
Figure 3-19.
Figure 3-18. Removing and Installing System Cables in Server Enclosure with Internal
Power Source
1
2
4
3
1
3
fan cable
2
4
front panel board connector
cable retaining clip
front panel board cable
214
Installing System Components
6
Remove the twenty screws securing the backplane cage and pull it out of
the server enclosure. See Figure 3-20.
Figure 3-20. Removing and Installing the Backplane Cage
1
2
3
1
3
server enclosure
backplane cage
2
screws (20)
Installing the Backplane/Fan Bay Cage
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
2
Slide the new backplane cage into the enclosure until it is fully seated.
See Figure 3-20.
Secure the backplane cage to the enclosure with the twenty screws.
See Figure 3-20.
216
Installing System Components
3
Connect the front panel board cable to the power management board and
secure the cable in the retaining clip. See Figure 3-18. For server enclosure
with external power source, see Figure 3-19.
4
5
6
7
Connect the fan cable to the power management board. See Figure 3-18.
For server enclosure with external power source, see Figure 3-19.
Slide the new fan bay cage into the enclosure until it is fully seated.
See Figure 3-17.
Secure the fan bay cage to the enclosure with the four screws.
See Figure 3-17.
Reconnect the enclosure to its electrical outlet or PDU.
PDU Power Supply
The external PDU includes six power supply modules. All six power supply
modules must remain installed. Use the following procedure to remove and
replace a power supply module from the external PDU.
NOTE: The PDU device illustrations in this section is for reference only and may not
reflect the appearance of the actual device.
PDU Power Supply Indicator Code
The status indicator on the front of the power supply lights green to indicate
a valid power source is connected to the power supply and that power supply
is operational. An amber light indicates that a power supply failure event
occurred.
Removing a PDU Power Supply
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
CAUTION: To ensure proper airflow in the PDU, if a PSU module is removed it
should be immediately replaced with another module.
NOTE: The PDU power supply replacement procedure are provided as reference
only. See PDU device documentation for more information.
Installing System Components
217
1
2
3
4
Locate the failed power supply module. If a power supply module is faulty
the status indicator lights up amber.
Disconnect the power cable from the power supply module.
See Figure 3-21.
Grasp the power supply handle and press the release latch.
See Figure 3-21.
Slide the power supply module out of it’s bay. See Figure 3-21.
Figure 3-21. Removing and Installing a PDU Power Supply
1
4
2
3
1
3
power cable
2
4
release latch
PDU device
power supply handle
218
Installing System Components
Installing a PDU Power Supply
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized is not covered by
warranty. Read and follow the safety instructions that came with the product.
1
Align the new power supply module with the power supply bay.
See Figure 3-21.
2
3
Slide the power supply module into the bay until it is fully seated.
Connect the power cable to the power supply. Verify that the indicator on
the front of the power supply lights. See Figure 3-21.
Installing System Components
219
220
Installing System Components
4
Rack Mount Configuration
Your PowerEdge C8000 server enclosure can be mounted in a four-post rack
cabinet.
Installation Guidelines
Use the following safety guidelines to help ensure your own personal safety
and to help protect your system and working environment from potential
damage. See additional safety information included with your system.
WARNING: Whenever you need to lift the system, get others to assist you. To
avoid injury, do not attempt to lift the system by yourself.
WARNING: The system is not fixed to the rack or mounted on the rails. To avoid
personal injury or damage to the system, you must adequately support the system
during installation and removal.
WARNING: To avoid a potential electrical shock hazard, a third wire safety
grounding conductor is necessary for the rack installation. The rack equipment
must provide sufficient airflow to the system to maintain proper cooling.
CAUTION: Before you install the server enclosure into a rack, it is recommended
that you remove all installed sled modules from the enclosure to reduce weight
and avoid injury.
CAUTION: To prevent possible damage to the server enclosure surface and sled
modules, always place the server enclosure and sled modules on an antistatic mat
or antistatic foam.
•
•
Prepare an antistatic mat or antistatic foam to set the PowerEdge C8000
server enclosure on during the compute or storage sled removal process.
Ensure that proper airflow is provided to components in the rack.
Rack Mount Configuration
221
Recommended Tools
Before you begin the installation tasks, ensure that you have the following
items:
•
•
•
•
#1 Phillips screwdriver
#2 Phillips screwdriver
Wrist grounding strap connected to ground
Antistatic mat or antistatic foam
Installation Tasks
tasks.
1
2
3
4
5
6
7
8
9
"Removing Sled Modules from the Server Enclosure" on page 228
"Installing the Server Enclosure into the Rack" on page 228
"Replacing Sled Modules in the Server Enclosure" on page 230
"Installing the External PDU into the Rack" on page 231
"Connecting the Power Cables" on page 237
"Connecting the Server Enclosure to a Rack PDU" on page 239
"Connecting the PDU to the Network" on page 243
"Powering Up the Systems" on page 246
222
Rack Mount Configuration
Installing the Tool-Less Rail Solution in the Rack
NOTE: The rack rails are marked LEFT and RIGHT. The rail marked "LEFT" attaches
to the left rack posts and the rail marked "RIGHT" attaches to the right rack posts
when facing the front of the rack.
NOTE: The rail pegs must be flush with the rack posts to install properly.
1
space in the rack for the 4U server enclosure. In a standard rack, the height
of a 4U chassis will span 12 rack post holes.
2
3
Use the marking indicated on the left and right sides of the rail to orient
the rail correctly to the rack posts.
Attach the left rail and stopping bracket to the rack.
a
b
c
d
Position left rail marked "LEFT" to align with its mounting holes on the
rack posts.
Press and hold the rail release button to open the latch on the front
end of the rail. See Figure 4-1.
Align the three pegs with the mounting holes on the front rack post.
See Figure 4-1.
Release the button when it engages to the front rack post.
See Figure 4-1.
NOTE: Make sure the rail release button is engaged correctly.
NOTE: The rails can be used in both square-hole and round-hole racks.
Rack Mount Configuration
223
Figure 4-1. Installing the Front End of the Rail
1
3
2
1
3
rail release button
rack post
2
rail pegs (3)
e
f
Press and hold the rail release button to open the latch on the back
end of the rail. See Figure 4-2.
Align the three pegs with the mounting holes on the back rack post.
See Figure 4-2.
g
Release the button when it engages to the back rack post. See
Figure 4-2.
224
Rack Mount Configuration
i
Align the stopping bracket to the back rack post and secure with the
three 10-32 screws. Apply 35 in-lbs of torque to the screws.
See Figure 4-4.
Figure 4-4. Installing the Stopping Bracket
1
2
1
stopping bracket
2
10-32 screws (3)
4
Attach the right rail and stopping bracket to the rack.
Use the same procedure to install the right rail and stopping bracket to the
right rack posts.
NOTE: To remove the rails, press and hold on the rail release button on the end
piece midpoint and unseat each rail.
Rack Mount Configuration
227
Enclosure
Before you install a PowerEdge C8000 server enclosure into a rack, it is
system weight and avoid injury.
For instructions on removing components from the server enclosure, refer to
the following sections.
•
•
•
•
•
"Removing a Double-Wide Sled Blank" on page 190
"Removing a Single-Wide Sled Blank" on page 191
"Removing a Compute Sled" on page 192
"Removing a Storage Sled" on page 194
"Removing a Power Sled" on page 198 (for server enclosure with internal
power source only)
Installing the Server Enclosure into the Rack
WARNING: Whenever you need to lift the system, get others to assist you. To
avoid injury, do not attempt to lift the system by yourself.
CAUTION: To ensure proper operation and cooling, all bays in the enclosure must
be populated at all times with either a sled or with a sled blank.
CAUTION: To maintain proper system cooling, all empty hard-drive slots must
have hard-drive blanks installed.
228
Rack Mount Configuration
2
Secure the front of the enclosure to the rack posts with four 10-32 screws.
See Figure 4-6.
Figure 4-6. Securing the Enclosure
1
1
10-32 screws (4)
Replacing Sled Modules in the Server Enclosure
For instructions on replacing sled modules in the server enclosure, refer to the
following sections.
•
•
•
•
•
"Installing a Double-Wide Sled Blank" on page 190
"Installing a Single-Wide Sled Blank" on page 191
"Installing a Compute Sled" on page 194
"Installing a Storage Sled" on page 195
"Installing a Power Sled" on page 200 (for server enclosure with internal
power source only)
230
Rack Mount Configuration
Installing the External PDU into the Rack
WARNING: Whenever you need to lift the system, get others to assist you. To
avoid injury, do not attempt to lift the system by yourself.
NOTE: The PDU device illustrations are provided as reference only. See PDU
device documentation for more information about the PDU device.
NOTE: The PDU mounting brackets are marked L and R. The rail marked "L"
attaches to the left of the PDU device and the rail marked "R" attaches to the right of
the PDU device.
WARNING: Do not connect or disconnect power cables to the PDU device while
the PDU is energized.
WARNING: Turn off the PDU breaker switches to avoid potentially serious or
fatal electric shock.
1
Power down the PDU.
a
Turn off the PDU breaker switches by moving the A, B, and C breaker
switches to the "OFF" position.
Figure 4-7. Turning off the PDU Breaker Switches
1
OFF
OFF
OFF
2
Rack Mount Configuration
231
1
PDU device
2
breaker switches (3)
b
Disconnect the PDU from the power source.
2
Remove the power cable interface box (PCIB) module.
a
b
Remove the two screws securing the PCIB module.
Grasp the PCIB handle and pull it out of it’s bay.
Figure 4-8. Removing the PCIB Module
1
2
3
1
3
PDU device
screw (2)
2
PCIB module
232
Rack Mount Configuration
3
Attach the mounting brackets to the sides of the PDU.
a
Affix the ten screws to the left and right sides of the PDU.
See Figure 4-9.
b
Position the left mounting bracket marked "L" to align the screw holes
with the screws on the PDU and slide the mounting bracket toward
the back of the PDU until it locks into place. See Figure 4-9.
c
Position the right mounting bracket marked "R" to align the screw
holes with the screws on the PDU and slide the mounting bracket
toward the back of the PDU until it locks into place. See Figure 4-9.
Figure 4-9. Installing the PDU Mounting Brackets
3
2
1
1
3
PDU device
2
screws (10)
mounting brackets (2)
Rack Mount Configuration
233
4
Install the snorkel to the PDU.
a
b
c
Remove the air duct from the snorkel.
Align the air duct with the front of the PDU. See Figure 4-10.
Secure the air duct to the front of the PDU with the two screws.
See Figure 4-10.
Figure 4-10. Installing the Snorkel Air Duct to the PDU
2
1
3
1
3
snorkel air duct
PDU device
2
screws (2)
234
Rack Mount Configuration
Connecting the Power Cables
This section includes instructions on how to connect the server enclosure
with internal or external power source to an external PDU.
Connecting the Power Cables to the Server Enclosure with Internal
Power Source
1
On the back of the server enclosure, connect the power cables to the AC
power sockets. See Figure 4-13.
Figure 4-13. Connecting the Power Cables to the Server Enclosure with Internal Power
Source
1
2
1
AC power sockets (2)
2
power cables (4)
2
Plug the other end of the power cables into a grounded electrical outlet or
a separate power source such as an uninterrupted power supply or the
PDU. For instructions on how to connect the power cables to the rack
PDU, see "Connecting the Server Enclosure to a Rack PDU" on page 239.
Rack Mount Configuration
237
Connecting the Power Cable to the Server Enclosure with External
Power Source
WARNING: Make sure power is turned off on all devices before making
connections.
1
2
On the back of the server enclosure, connect the power cable to the DC
power socket. See Figure 4-14.
Tighten the two center screws on the cable to secure the connection.
See Figure 4-14.
Figure 4-14. Connecting the Power Cable to the Server Enclosure with External Power
Source
1
3
1
3
power cable
2
screws (2)
DC power socket
3
Plug the other end of the power cables into a separate power source such as
a PDU. For instructions on how to connect the power cables to the rack
PDU, see "Connecting the Server Enclosure to a Rack PDU" on page 239.
238
Rack Mount Configuration
Connecting the Server Enclosure to a Rack PDU
WARNING: Do not connect or disconnect power cables to the PDU device while
the PDU is energized. Turn off the PDU breaker switches to avoid potentially
serious or fatal electrical shock. Move the PDU A, B, and C breaker switches to
the "OFF" position.
1
2
Unlock the cable cover. See Figure 4-15.
Rotate the cover back and away from the PDU. See Figure 4-15.
Figure 4-15. Opening the PDU Cover
1
2
1
cable cover
2
lock
3
Depending on the type of power cable used, connect the server enclosure
power cable to the PDU power bus bar or the power sockets.
For connecting the power cables to the PDU’s front power socket, go to
step 6.
Rack Mount Configuration
239
4
Attach the server enclosure(s) power cables to the PDU power bus bar.
NOTE: The PDU device supports a maximum of five PowerEdge C8000 server
enclosures depending on the system configuration and power budget.
a
b
c
Secure the three black power cable lugs to the top power bus bar
(GND) with three screws. See Figure 4-16.
Secure the three yellow power cable lugs to the bottom power bus bar
(12 V) with three screws. See Figure 4-16.
For multiple server enclosures cable connection, see Figure 4-17.
Figure 4-16. Connecting a Single Server Enclosure to the PDU
2
3
4
1
5
7
6
1
3
5
7
screws (6)
2
4
6
power bus bar (GND)
PDU device
power bus bar (12 V)
server enclosure
black power cables (3)
yellow power cables (3)
240
Rack Mount Configuration
Figure 4-17. Connecting Multiple Server Enclosures to the PDU
2
3
1
4
5
6
10
7
9
8
1
3
5
7
screws (12)
2
4
6
8
power bus bar (GND)
PDU device
power bus bar (12 V)
server enclosure 1
server enclosure 2
server enclosure 2 yellow power
cables (3)
server enclosure 1 yellow power
cables (3)
9
server enclosure 2 black power
cables (3)
10 server enclosure 1 black power
cables (3)
5
Close the cable cover and secure to the PDU. See Figure 4-15.
Rack Mount Configuration
241
Connecting a Network Switch to a Rack PDU
CAUTION: The PDU device’s A, B, and C power sockets are for network switches
only. Do not connect server enclosure(s) or server(s) to these sockets.
WARNING: Exceeding 3 amps per outlet could cause sudden rack level power
loss.
Connect the network switch power cable to one of the three PDU AC power
sockets. See Figure 4-18.
Figure 4-18. Connecting the Network Switch Power Cable to the PDU
2
1
3
1
3
PDU device
2
AC power sockets (3)
network switch’s power cable
242
Rack Mount Configuration
Connecting the PDU to the Network
1
Install the power management controller (PMC) board into the PDU.
a
b
c
Unpack the PMC kit.
Slide the PMC board into the PMC tray. See Figure 4-19.
Secure the PMC board to the PMC tray with the four screws.
See Figure 4-19.
Figure 4-19. Installing the Power Management Controller Board
1
2
3
1
3
power management controller (PMC) board
PMC tray
2
screws (4)
Rack Mount Configuration
243
Powering Up the Systems
1
Install the PCIB module into the PDU.
a
b
Insert the PCIB module into the PCIB bay. See Figure 4-22.
Secure the PCIB module to the PDU with the two screws.
See Figure 4-22.
Figure 4-22. Installing the PCIB Module
1
2
3
1
3
PDU device
screws (2)
2
PCIB module
c
Connect the PDU to the power source.
246
Rack Mount Configuration
2
Turn on the PDU breaker switches by moving the A, B, and C breaker
switches to the "ON" position. See Figure 4-23.
Figure 4-23. Turning on the PDU Breaker Switches
1
ON
ON
ON
2
1
PDU device
2
breaker switches (3)
NOTE: The PMC board and PDU device illustrations used in this manual are
provided as reference only. See PDU device documentation for more information
about the PMC board and PDU device.
Rack Mount Configuration
247
3
To enable monitoring of the PDU device over the network, turn on the
PMC board by pressing the power button, located on the PMC board. The
two indicators located on the front of the PMC board alerts you to the
condition of the PDU power supply module, PMC board and managed
sled modules.
The following table lists the PMC board indicators functions.
Indicator
Icon
Description
PDU
identification
indicator
The identification indicator lights blue indicating an
ON request is generated.
The identification indicator flashes blue indicating a
blink request is generated.
The identification indicator is off to indicate there is
no input power to the PDU or in normal condition.
Power/status
indicator
The power/status indicator lights green and flashes
amber (about 1 Hz) indicating that a valid power
source is connected to the PDU and PMC and that
power is applied to the sled modules in the server
enclosure.
The power/status indicator flashes green (about 1 Hz)
and flashes green and amber (about 1 Hz) indicating
the PDU is in service or sleep mode.
The power/status indicator is off to indicate there is no
input power to the PDU.
The power/status indicator flashes amber indicating
the following conditions:
• PMC status
• PMBus error
• PMC works in safe boot mode
• PDU status
• Communication error
248
Rack Mount Configuration
Indicator
Icon
Description
The power/status indicator flashes amber indicating
the following conditions (continued):
• PSU module reading exceed threshold limits
• Power > 1480 W
• Voltage > 14.5 V
• Voltage < 10.75 V
• Current > 13 A
• Temperature > 60 °C
• Fan speed < 500 rpm
• PSU module status (from PSU STATUS_WORD)
• PSU module OVP
• PSU module OCP
• PSU module OTP
• PSU module fan fault protection (FFP)
• PSU module input over current
• PSU module input over power
• PSU module AC loss
• PSU module works in boot mode
• Communication error
NOTE: When connected to a power source, main power is automatically
distributed to the PowerEdge C8000 server enclosure. After the server enclosure is
powered up the power/event indicator on the front of the enclosure will light up
green and main power is applied to all sleds in the enclosure.
4
Turn on the sleds in the server enclosure.
To turn on the C8220 or C8220X compute sled, press the power button on
each sled, or power on the sled using the baseboard management
controller. When power is applied to the sled, the power-on indicator on
front of the sled will light up green. When installed into the server
enclosure, the C8000XD storage sled automatically powers on.
Rack Mount Configuration
249
250
Rack Mount Configuration
5
Troubleshooting
Safety First—For You and Your System
WARNING: Whenever you need to lift the system, get others to assist you. To
avoid injury, do not attempt to lift the system by yourself.
WARNING: Before removing the system cover, disconnect all power, then unplug
the AC power cord, and then disconnect all peripherals, and all LAN lines.
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
Installation Problems
Perform the following checks if you are troubleshooting an installation
problem:
•
•
•
•
Check all cable and power connections (including all rack cable
connections).
Unplug the power cord and wait for one minute. Then reconnect the
power cord and try again.
If the network is reporting an error, verify that the system has enough
memory and disk space.
Remove all added peripherals, one at a time, and try to turn on the system.
If after removing a peripheral the system works, it may be a problem with
the peripheral or a configuration problem between the peripheral and the
system. Contact the peripheral vendor for assistance.
Troubleshooting
251
•
If the system does not power on, check the LED display. If the power LED
is not on, you may not be receiving AC power. Check the AC power cord to
make sure that it is securely connected.
Troubleshooting System Startup Failure
If your system halts during startup, especially after installing an operating
system or reconfiguring your system’s hardware, check for invalid memory
video output. See the compute sled’s Hardware Owner’s Manual for
information about the "System Memory".
For all other startup issues, note any system messages that appear onscreen.
See "Using the System Setup Program" on page 67 for more information.
Troubleshooting External Connections
Ensure that all external cables are securely attached to the external
connectors on your sled before troubleshooting any external devices.
See Figure 1-1 and Figure 1-3 for the front- and back-panel connectors
on your system.
Troubleshooting the Video Subsystem
1
Check the compute sled and power connections to the monitor.
2
Check the video interface cabling from the compute sled to the monitor.
Troubleshooting a USB Device
Use the following steps to troubleshoot a USB keyboard and/or mouse. For
other USB devices, go to step 5.
1
2
Ensure that the compute sled is turned on.
Disconnect the keyboard and mouse cables from the sled briefly and
reconnect them.
3
4
If the problem is resolved, restart the sled, enter the System Setup
program, and check if the nonfunctioning USB ports are enabled.
Swap the keyboard/mouse with a known-working keyboard/mouse.
252
Troubleshooting
5
device works with a different sled, the first sled may be faulty.
If the problem is resolved, replace the faulty keyboard/mouse.
If the problem is not resolved, proceed to the next step to begin
troubleshooting the other USB devices attached to the system.
a
Power down all attached USB devices and disconnect them from the
sled.
b
Restart the sled and, if your keyboard is functioning, enter the System
Configuration" on page 105.
c
d
If your keyboard is not functioning, you can also use remote access. If
the system is not accessible, locate the NVRAM Clear jumper inside
your sled and restore the BIOS to the default settings.
Reconnect and turn on each USB device one at a time.
6
If a device causes the same problem, power down the device, replace the
USB cable, and power up the device.
If the problem persists, replace the device.
If all troubleshooting fails, see "Getting Help" on page 289.
Troubleshooting a Serial I/O Device
1
2
3
Ensure that the compute sled is turned on.
Check the serial device connection to the sled.
Swap the serial interface cable with another working cable, and turn on the
sled and the serial device.
If the problem is resolved, replace the interface cable.
4
5
6
7
Swap the serial device with a known-working serial device.
Connect the serial device to the sled.
Turn on the sled and the serial device.
If another sled is installed, connect the serial device to the sled. If the serial
device works with a different sled, the first sled may be faulty.
If the problem is resolved, replace the serial device.
If the problem persists, see "Getting Help" on page 289.
Troubleshooting
253
Troubleshooting a NIC
1
Restart the compute sled and check for any system messages pertaining to
the NIC controller.
2
Check the appropriate indicator on the NIC connector. See "NIC Indicator
Codes" on page 20.
•
•
If the link indicator does not light, check all cable connections.
If the activity indicator does not light, the network driver files might
be damaged or missing.
•
Remove and reinstall the drivers if applicable. See the NIC's
documentation.
•
•
Change the auto-negotiation setting, if possible.
Use another connector on the switch or hub.
If you are using a NIC card instead of an integrated NIC, see the
documentation for the NIC card.
3
4
5
Ensure that the appropriate drivers are installed and the protocols are
bound. See the NIC's documentation.
Enter the System Setup program and confirm that the NIC ports are
enabled. See "Using the System Setup Program" on page 67.
Ensure that the NICs, hubs, and switches on the network are all set to the
same data transmission speed. See the documentation for each network
device.
6
Ensure that all network cables are of the proper type and do not exceed the
maximum length.
If all troubleshooting fails, see "Getting Help" on page 289.
254
Troubleshooting
Troubleshooting a Wet Enclosure
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
1
2
Turn off the sleds and attached peripherals.
Disconnect the enclosure from the electrical outlet or the PDU.
proceeding.
3
4
Remove all sleds. See "Removing a Compute Sled" on page 192 or
"Removing a Storage Sled" on page 194.
more information.
5
6
Remove the fan modules. See "Removing a Fan Module" on page 207.
Remove the front panel board. See "Removing the Front Panel Board" on
page 209.
7
Remove the fan controller board. See "Removing the Fan Controller
Board" on page 211.
8
9
Let the enclosure dry thoroughly for at least 24 hours.
Reinstall the fan controller board. See "Installing the Fan Controller
Board" on page 212.
10 Reinstall the front panel board. See "Installing the Front Panel Board" on
page 210.
11 Reinstall the fan modules. See "Installing a Fan Module" on page 208.
12 Reinstall all sled components you removed in step 4.
13 Reinstall all sleds. See "Installing a Compute Sled" on page 194 or
"Installing a Storage Sled" on page 195.
Troubleshooting
255
14 Reconnect the enclosure to the electrical outlet or the PDU.
15 Turn on the sleds and attached peripherals.
16 If the system fails to start, see "Getting Help" on page 289.
Troubleshooting a Damaged Enclosure
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
1
2
3
Turn off the sleds and attached peripherals.
Disconnect the enclosure from the electrical outlet or the PDU.
Ensure that the following components are properly installed in the
enclosure:
•
•
•
Power sleds
Fan modules
Compute or storage sleds
4
Ensure that all components are properly installed in the sled. See the sled’s
documentation for more information.
5
6
7
Ensure that all cables are properly connected.
Ensure that all components are properly installed and free of damage.
If the system fails to start, see "Getting Help" on page 289.
256
Troubleshooting
Troubleshooting Enclosure Fan Modules
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
NOTE: The fan modules are hot-swappable. Remove and replace only one fan
module at a time in a server enclosure that is turned on. Operating the system
without all three fan modules for extended periods of time can cause the system to
overheat. Review the following table before you begin to replace the fan modules.
Fan Module (Fan Controller Firmware) Thermal Behavior Per Sled
Table 5-1. Fan Module (Fan Controller Firmware) Thermal Behavior Per Sled
Fan Module BMC (Processor/Memory)/Server Enclosure Temperature Status
Status
OK/OK
OK/Fail
Fail/OK
Fail/Fail
Fan module Close loop,
Close loop,
Open loop (curve B)c, 100% PWM
Open loop (curve A)a, 80% PWM
If the PWM duty
normal/OK
cycle value rises above
100%, sled-level
If the PWM duty
cycle value rises above PWM signal
100%, sled-level
throttling is
triggered b
If close loop
throttling is triggeredb
value is > 80%,
the PWM
output will
follow the close
loop output
One fan
Close loop,
100% PWM
100% PWM
100% PWM
module fails
If the PWM duty
Open loop
(curve C)d,
System
throttling
cycle value rises above
100%, sled-level
If the PWM duty
throttling is triggeredb
cycle value rises above
100%, sled-level
throttling is triggeredb
Troubleshooting
257
Table 5-1. Fan Module (Fan Controller Firmware) Thermal Behavior Per Sled
Fan Module BMC (Processor/Memory)/Server Enclosure Temperature Status
Status
OK/OK
OK/Fail
Fail/OK
Fail/Fail
Two fan
System throttling,
System
System
modules fail
throttling,
throttling,
After 90 seconds has
After 90 seconds has
passed, the system
passed, the system will After 90
After 90 seconds
be forced to shut
down
seconds has
will be forced to shut has passed, the
passed, the
system will be
forced to shut
down
down
system will be
forced to shut
down
Three fan
modules fail shutdown
System force
System force
shutdown
System force
shutdown
System force
shutdown
a. Open loop (curve A) is fan speed control (FSC) curve with default mode.
b. Refer to the Fan Controller Firmware Response section for more information.
c. Open loop (curve B) is FSC curve with emergency mode.
d. Open loop (curve C) is FSC curve with fan failure mode.
Fan Controller Firmware Response
Refer to the tables below when troubleshooting enclosure fan noise and for
the FC firmware responses to the possible PWM duty cycle values.
Table 5-2. Case Scenario 1
Interval (30 secs)
PWM Results
Fan Controller Firmware Action
Interval 1
PWM > 100%
1
2
Sets PWM = 100%
Sled throttling mechanism is active
Interval 2
PWM > 100%
1
Triggers sled throttling for 1 hr.
Table 5-2 lists the FC firmware responses in case scenario 1:
•
Interval 1 — If the calculated value of the PWM is higher than 100%, the
FC firmware will send a signal to the fan to operate at 100% duty cycle and
trigger sled throttling.
•
Interval 2 — If the calculated value of the PWM duty cycle is still higher
than 100% again, the FC firmware will send a signal to the fan to operate
at 100% duty cycle and trigger sled throttling for 1 hour.
258
Troubleshooting
Table 5-3. Case Scenario 2
Interval (30 secs)
PWM Results
Fan Controller Firmware Action
Interval 1
PWM > 100%
1
2
Sets PWM= 100%
Sled throttling mechanism is active
Interval 2
Interval 3
PWM 100%
1
2
Sets PWM duty cycle
Sled throttling mechanism is inactive
PWM > 100%
1
2
Sets PWM = 100%
Triggers sled throttling for 1 hr.
Table 5-3 lists the FC firmware responses in case scenario 2:
•
•
•
Interval 1 — If the calculated value of the PWM is higher than 100%, the
FC firmware will send a signal to the fan to operate at 100% duty cycle and
trigger sled throttling.
Interval 2 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
Interval 3 — If the calculated value of the PWM duty cycle is still higher
than 100% again, the FC firmware will send a signal to the fan to operate
at 100% duty cycle and trigger sled throttling for 1 hour.
Table 5-4. Case Scenario 3
Interval (30 secs)
PWM Results
Fan Controller Firmware Action
Interval 1
PWM > 100%
1
2
Sets PWM = 100%
Sled throttling mechanism is active
Interval 2
PWM 100%
1
2
Sets PWM duty cycle
Sled throttling mechanism is inactive
Interval 3
Interval 4
PWM 100%
Sets PWM duty cycle
PWM > 100%
1
2
Sets PWM = 100%
Sled throttling mechanism is active
Interval 5
PWM > 100%
1
Triggers sled throttling for 1 hr.
Table 5-4 lists the FC firmware responses in case scenario 3:
•
Interval 1 — If the calculated value of the PWM is higher than 100%, the
FC firmware will send a signal to the fan to operate at 100% duty cycle and
trigger sled throttling.
Troubleshooting
259
•
•
•
•
Interval 2 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
Interval 3 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
Interval 4 — If the calculated value of the PWM duty cycle is higher than
100%, the FC firmware will send a signal to the fan to operate at 100%
duty cycle and trigger sled throttling.
Interval 5 — If the calculated value of the PWM duty cycle is still higher
than 100% again, the FC firmware will send a signal to the fan to operate
at 100% duty cycle and trigger sled throttling for 1 hour.
Table 5-5. Case Scenario 4
Interval (30 secs)
PWM Results
Fan Controller Firmware Action
Interval 1
PWM > 100%
1
2
Sets PWM = 100%
Sled throttling mechanism is active
Interval 2
PWM 100%
1
2
Sets PWM duty cycle
Sled throttling mechanism is inactive
Interval 3
Interval 4
PWM 100%
Sets PWM duty cycle
PWM > 100%
1
2
Sets PWM = 100%
Sled throttling mechanism is active
Interval 5
Interval 6
PWM 100%
1
2
Sets PWM duty cycle
Sled throttling mechanism is inactive
PWM > 100%
1
2
Sets PWM duty cycle = 100%
Triggers sled throttling for 1 hr.
Table 5-5 lists the FC firmware responses in case scenario 4:
•
Interval 1 — If the calculated value of the PWM is higher than 100%, the
FC firmware will send a signal to the fan to operate at 100% duty cycle and
trigger sled throttling.
•
Interval 2 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
260
Troubleshooting
•
•
•
•
Interval 3 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
Interval 4 — If the calculated value of the PWM duty cycle is higher than
100%, the FC firmware will send a signal to the fan to operate at 100%
duty cycle and trigger sled throttling.
Interval 5 — If the calculated value of the PWM duty cycle is less than or
equal to 100%, the FC firmware will send a signal to the fan to operate at
the set duty cycle.
Sixth interval — If the calculated value of the PWM duty cycle is still
higher than 100% again, the FC firmware will send a signal to the fan to
operate at 100% duty cycle and trigger sled throttling for 1 hour.
To troubleshoot the enclosure fan modules:
1
2
3
4
5
6
Locate the faulty fan module in the back of the enclosure.
Each fan module has indicators that identify a faulty fan. See Figure 1-5.
Remove the fan module. See "Removing a Fan Module" on page 207.
Examine the blades for debris. If debris is present, carefully remove it.
Reseat the fan module. See "Installing a Fan Module" on page 208.
If none of the fan indicators show a fault LED and the blade do not power
on, log into the BMC web interface and check for status messages.
7
8
If the problem is not resolved, install a new fan.
If the new fan does not operate, see "Getting Help" on page 289.
Troubleshooting
261
Troubleshooting Cooling Problems
PowerEdge C8000 server enclosure supports chiller-less fresh air cooling that
enables the enclosure to operate at room temperature and tolerate
temperature spikes up to 45 °C (113 °F). Fresh air cooling controls
temperature in the enclosure through fan speed. Outside air is drawn and
circulated through the enclosure interior to cool the enclosure and
components. You can use IPMI messaging to switch the air flow in the
enclosure to fresh air mode or normal operating mode.
To enable fresh air cooling in the enclosure:
1
Enter the following command:
ipmitool -I lanplus -P <password> -U <username> -H <BMC IP
address> raw <command>
where
-I lanplus is the LAN plus interface that uses the Remote Management
Control Protocol+ (RMCP+) protocol to communicate with the BMC
over an Ethernet LAN connection
-P <password> is the password for the given user ID
-U <username> is the username associated with the given user ID
-H <BMC IP address> is the BMC IP address
<command> is the command for configuring the fresh air mode
For example, the command line should have the following format:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x43 0x01
0x01
2
Enter the following command:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x43 0x01
0x01
262
Troubleshooting
To disable fresh air cooling in the enclosure:
1
Enter the following command:
ipmitool -I lanplus -P <password> -U <username> -H <BMC IP
address> raw <command>
where
-I lanplus is the LAN plus interface that uses the Remote Management
Control Protocol+ (RMCP+) protocol to communicate with the BMC
over an Ethernet LAN connection
-P <password> is the password for the given user ID
-U <username> is the username associated with the given user ID
-H <BMC IP address> is the BMC IP address
<command> is the command for configuring the fresh air mode
For example, the command line should have the following format:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x43 0x01
0x01
2
Enter the following command:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x43 0x01
0x0
To view the server enclosure fresh air status:
1
Enter the following command:
ipmitool -I lanplus -P <password> -U <username> -H <BMC IP
address> raw <command>
where
-I lanplus is the LAN plus interface that uses the Remote Management
Control Protocol+ (RMCP+) protocol to communicate with the BMC
over an Ethernet LAN connection
-P <password> is the password for the given user ID
-U <username> is the username associated with the given user ID
-H <BMC IP address> is the BMC IP address
Troubleshooting
263
<command> is the command for configuring the fresh air mode
For example, the command line should have the following format:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x43 0x01
0x01
2
You can do either of the following commands to view the server enclosure
fresh air status:
–
To view the server enclosure fresh air status when the fresh air mode is
enabled, enter the following command:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x44
0x1 01
–
To view the server enclosure fresh air status when the fresh air mode is
disabled, enter the following command:
ipmitool –I lanplus –P root -U root –H 192.168.70.58 raw 0x30 0x44
0x01 00
264
Troubleshooting
Air Inlet Temperature Threshold Settings
The table below lists the enclosure’s air inlet temperature thresholds and the
different fan controller firmware actions for each threshold.
Table 5-6. Enclosure Air Inlet Temperature Threshold Settings
Enclosure Threshold
Ambient
Temp
Threshold Level Action
Inlet
Setting
Condition
Normal Upper
43 °C
Extremely high Fan controller (FC)
firmware shuts down the
system.
mode
non-recoverable (109.4 °F)
NOTE: The firmware reads
inlet temperature every 5 secs.
If the inlet temperature reaches
non-recoverable threshold, the
firmware will start to check the
power status for each sled and
initiate the sled for graceful
shutdown (pull-low 4 seconds).
Upper critical 41 °C
(105.8 °F)
High
Chassis status indicator
lights amber.
Upper
non-critical
38 °C
(100.4 °F)
Warning
Warning
Low
Temperature events are
recorded in the SEL.
Lower
non-critical
N/A
Temperature events are
recorded in the SEL.
Lower critical N/A
Chassis status indicator
lights amber.
Lower
non-recoverable (41 °F)
5 °C
Extremely low Chassis status indicator
lights amber.
Troubleshooting
265
Table 5-6. Enclosure Air Inlet Temperature Threshold Settings (continued)
Enclosure Threshold
Ambient
Temp
Threshold Level Action
Inlet
Setting
Condition
Fresh air Upper
52 °C
Extremely high Fan controller (FC)
firmware shuts down the
system.
mode
non-recoverable (125.6 °F)
NOTE: The firmware reads
inlet temperature every 5 secs.
If the inlet temperature reaches
non-recoverable threshold, the
firmware will start to check the
power status for each sled and
initiate the sled for graceful
shutdown (pull-low 4 seconds).
Upper critical 50 °C
(122 °F)
High
Chassis status indicator
lights amber.
Upper
non-critical
48 °C
(118.4 °F)
Warning
Temperature events are
recorded in the SEL.
266
Troubleshooting
Troubleshooting Sled Components
The following procedures describe how to troubleshoot the following
compute sled components:
•
•
•
•
•
•
Memory
Hard-drives
Expansion cards
Processors
System board
Battery
Troubleshooting System Memory
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
NOTE: Invalid memory configurations can cause your system to halt at startup
information about the "System Memory" and verify that your memory configuration
complies with all applicable guidelines.
1
2
If the system is not operational, turn off the sled and attached peripherals.
After 10 seconds, turn on the sled and attached peripherals and note the
messages on the screen.
Go to step 11 if an error message appears indicating a fault with a specific
memory module.
3
4
Enter the System Setup program and check the system memory settings.
See "Main Menu" on page 74. Make any changes to the memory settings, if
needed.
If the memory settings match the installed memory but a problem is still
indicated, go to step 11.
Turn off the sled and attached peripherals.
Troubleshooting
267
5
Remove the sled from the enclosure. See "Removing a Compute Sled" on
page 192. See the compute sled’s documentation for more information.
6
7
Check the memory channels and ensure that they are populated correctly.
Reseat the memory modules in their sockets. See the compute sled’s
documentation for more information.
8
9
Reinstall the sled into the enclosure.
Turn on the sled and attached peripherals.
10 Enter the System Setup program and check the system memory settings.
See "Main Menu" on page 74.
If the problem is not resolved, proceed with the next step.
11 Turn off the sled and attached peripherals.
12 Remove the sled from the enclosure.
13 If a diagnostic test or error message indicates a specific memory module as
faulty, swap or replace the module.
14 To troubleshoot an unspecified faulty memory module, replace the
and capacity. See the compute sled’s documentation for more information.
15 Reinstall the sled into the enclosure.
16 Turn on the sled and attached peripherals.
17 As the system boots, observe any error message that appears and the
diagnostic indicators on the front of the system.
18 If the memory problem is still indicated, repeat step 11 through step 17 for
each memory module installed.
19 If the problem persists after all memory modules have been checked, see
"Getting Help" on page 289.
268
Troubleshooting
Troubleshooting a Hard-Drive
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
CAUTION: This troubleshooting procedure can destroy data stored on the hard-
drive. Before you proceed, back up all files on the hard-drive.
1
If your sled has a RAID controller and your hard-drives are configured in a
RAID array, perform the following steps:
a
Restart the system and enter the host adapter configuration utility
program by pressing <Ctrl><H> for a RAID controller,
<Ctrl><C> for a SAS controller, or <Ctrl><I> for the onboard
RAID controller.
See the documentation supplied with the host adapter for information
about the configuration utility.
b
Ensure that the hard-drive(s) have been configured correctly for the
RAID array.
c
d
Exit the configuration utility and allow the system to boot to the
operating system.
2
3
4
Ensure that the required device drivers for your controller card are installed
and are configured correctly. See the operating system documentation for
more information.
Restart the system, enter the System Setup program, and verify that the
controller is enabled and the drives appear in the System Setup program.
See "Using the System Setup Program" on page 67.
If the problem persists, see "Getting Help" on page 289.
Troubleshooting
269
Troubleshooting Expansion Cards
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
NOTE: When troubleshooting an expansion card, see the documentation for your
operating system and the expansion card.
1
2
Turn off the sled and attached peripherals.
Remove the sled from the enclosure. See "Removing a Compute Sled" on
page 192.
3
Open the sled. See the compute sled’s documentation for more
information.
4
5
6
7
Ensure that each expansion card is firmly seated in its connector.
Reinstall the sled into the enclosure.
Turn on the sled and attached peripherals.
If the problem is not resolved, see "Getting Help" on page 289.
Troubleshooting Processors
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
1
2
Turn off the sled and attached peripherals.
Remove the sled from the server enclosure. See "Removing a Compute
Sled" on page 192.
3
Open the sled. See the compute sled’s documentation for more
information.
4
5
6
Remove the cooling shroud.
Ensure that each heat sink is properly installed.
Ensure that there is thermal grease on the heat sink and processor.
270
Troubleshooting
7
8
9
Ensure that each processor is properly installed.
Replace the cooling shroud.
Reinstall the sled into the enclosure.
10 Turn on the sled and attached peripherals.
12 Remove the sled from the enclosure.
13 Remove the cooling shroud.
14 Remove processor 2.
15 Replace the cooling shroud.
16 Reinstall the sled into the enclosure.
17 Turn on the sled and attached peripherals.
page 289.
18 Turn off the sled and attached peripherals.
19 Remove the sled from the enclosure.
20 Remove the cooling shroud.
21 Replace processor 1 with processor 2.
22 Repeat step 12 through step 19.
If you have tested both the processors and the problem persists, the system
Troubleshooting the System Board
CAUTION: Many repairs may only be done by a certified service technician. You
should only perform troubleshooting and simple repairs as authorized in your
product documentation, or as directed by the online or telephone service and
support team. Damage due to servicing that is not authorized by Dell is not covered
by your warranty. Read and follow the safety instructions that came with the
product.
1
2
Remove the sled from the enclosure. See "Removing a Compute Sled" on
page 192.
Open the sled. See the compute sled’s documentation for more
information.
Troubleshooting
271
3
Remove the mezzanine cards. See the compute sled’s documentation for
more information.
4
5
6
7
Locate the NVRAM clear jumper on the system board.
Clear the NVRAM.
Close the sled.
If there is still a problem with the compute sled, remove and reinstall the
sled.
If the problem persists, see "Getting Help" on page 289.
Troubleshooting the System Battery
NOTE: If the system is turned off for long periods of time (for weeks or months), the
NVRAM may lose its system configuration information. This situation is caused by a
defective battery.
1
"System Setup Options at Boot" on page 68.
2
3
4
Turn off the sled and remove it from the enclosure for at least one hour.
Reconnect the sled to the server enclosure and turn on the sled.
Enter the System Setup program.
If the date and time are not correct in the System Setup program, replace
the battery.
If the problem is not resolved by replacing the battery, see "Getting Help"
on page 289.
CAUTION: You should only perform troubleshooting and simple repairs as
authorized in your product documentation, or as directed by the online or
telephone service and support team. Damage due to servicing that is not
authorized by Dell is not covered by your warranty. Read and follow the safety
instructions that came with the product.
If the problem is not resolved by replacing the battery, see "Getting Help"
on page 289.
NOTE: Some software may cause the system time to speed up or slow down. If the
system seems to operate normally except for the time kept in the System Setup
program, the problem may be caused by software rather than by a defective
battery.
272
Troubleshooting
IRQ Assignment Conflicts
Most PCI devices can share an IRQ with another device, but they cannot use
an IRQ simultaneously. To avoid this type of conflict, see the documentation
for each PCI device for specific IRQ requirements.
IRQ Line Assignment
IRQ Line Assignment
IRQ0
IRQ1
IRQ2
IRQ3
8254 timer
IRQ8
IRQ9
IRQ10
Real-time clock
Keyboard controller
PCI IRQ pool definition
PCI IRQ pool definition
PCI IRQ pool definition
Cascade for IRQ9
Serial port (COM2) or PCI IRQ11
IRQ pool definition
IRQ4
Serial port (COM1) or PCI IRQ12
IRQ pool definition
Mouse controller
IRQ5
IRQ6
IRQ7
IRQ13
IRQ14
IRQ15
Processor
PCI IRQ pool definition
PCI IRQ pool definition
Reserve
Primary IDE controller
Secondary IDE controller
PCI IRQ pool definition is the BIOS code assigned at run time.
Troubleshooting
273
274
Troubleshooting
6
Updating Firmware Images and
Monitoring the PDU Power Status
Verifying and Updating the Fan Controller Board
Firmware Via the Compute Sled
Viewing the Fan Controller Board Firmware Version Information
1
2
Run the command line interface.
Enter the following command line:
cmd > fcbutil /i
Updating the Fan Controller Board Firmware
NOTE: Removing the FCB during a FCB firmware update will break the firmware
update process and could damage or corrupt the image on the FCB. Please contact
Dell for more help if this occurred.
NOTE: When updating FCB components, such as the CPLD and fan table, the
update sequence is as follows: CPLD > fan table > FCB firmware.
1
2
Download the latest fan controller board firmware from dell.com/support
Browse to the location where you downloaded the firmware package and
extract the package.
.
Run the fan controller (FC) update utility.
–
–
–
MS-DOS — FCBUTIL.EXE
Windows — fcbutil_x64.exe
Linux — fcbutil_linux or fcbutil_linux64
Updating Firmware Images and Monitoring the PDU Power Status
275
Sample output:
[root@localhost]#./fcbutil_linux64 fcb_fw.bin
FCB Update Utility Ver 0.01.01, 2013/05/24
IPMIVer=02 FWVer=02.20 AuxFW=06000000
FCBVer=02.26 FanTableVer=01.63
Start Copy Image to BMC
100%
Wait: Copy Image to FCB and Update FCB
Done: Update Completed.
Reset BMC!
Wait: BMC Reboot and Connect to FCB
FCBVer=02.27 FanTableVer=01.63
Completed!
[root@localhost]#
3
After the process is completed, the new firmware and fan table versions
display on the screen.
Verifying and Updating the Fan Controller Board
Firmware Via SNMP
NOTE: The following procedure applies only when there are no compute sleds
installed in the server enclosure.
When the PowerEdge C8000 server enclosure is fully populated with five
storage sleds only, you can use Simple Network Management Protocol
(SNMP) to verify and update the fan controller board (FCB) firmware. The
FCB is integrated with an Ethernet connector and supports SNMP v2c that
allows you to monitor the server enclosure status over the network and send
traps or notifications when critical situations occur.
Before You Begin
1
Install a SNMP utility on your computer. You can install a commercial or a
free SNMP utility.
276
Updating Firmware Images and Monitoring the PDU Power Status
2
Install a Trivial File Transfer Protocol (TFTP) server software on your
computer.
TFTP is a simplified form of the FTP. It is used with the SNMP v2c
command line interfaces to transfer files to and from the FCB, update the
FCB firmware and modify the FCB configuration information.
If you are using Linux, install a TFTP server from your distribution.
If you are using Windows, install a commercial or free TFTP server.
Checking FCB Indicators
The FCB status and identification indicators light to indicate an error
condition.
•
•
Status indicator blinks amber (about 1 Hz) to indicate an error condition.
Identification indicator blinks blue (about 1 Hz).
Resetting the FCB Network Connection
By default, the FCB is configured to automatically obtain an IP address via
DHCP server.
1
Do three short presses of the reset button within 5 seconds to change the
DHCP IP address on the FCB over to a static IP address.
After the FCB resets, all network and configuration settings restore back to
their default values. The FCB is configured with the following default
network settings:
•
•
•
IP address: 192.168.0.120
Subnet mask: 255.255.255.0
Gateway: 192.168.0.1
The status indicator on the FCB displays the following behaviors:
•
Blinking amber (500 ms off/5 s on) — Restarts the FCB firmware and
reset to factory default is completed.
•
Blinking amber (250 ms off/5 s on) — Restores the default network
settings to their default values.
2
Do three short presses of the reset button within 5 seconds again to switch
static IP back to reset to default (DHCP).
Updating Firmware Images and Monitoring the PDU Power Status
277
Viewing or Changing the FCB Configuration Information
The FCB configuration information is stored in the FCB board’s internal
EEPROM. The FCB configuration file is a text (TXT) file. You must use
TFTP server to retrieve the configuration data and then use Notepad or a text
editor to view or change the configuration data.
For example, a configuration data should have the following information:
CONNECT.TYPE=STATIC/DHCP
IP=192.168.0.120
NETMASK=255.255.255.0
GATEWAY=192.168.0.1
TRAP.DESTINATION1=0.0.0.0
TRAP.DESTINATION2=0.0.0.0
TRAP.DESTINATION3=0.0.0.0
TRAP.DESTINATION4=0.0.0.0
TRAP.DESTINATION5=0.0.0.0
SNMP.RD.COMMUNITY.STR=public
SNMP.RW.COMMUNITY.STR=private
POWERCAPPING.R=3
POWERCAPPING.W_DELTA=20
POWERCAPPING.K_CNT=3
Configuring the SNMP Traps
1
2
3
4
Import the FCB configuration data.
Use a Notepad or text editor to edit the configuration data.
Enter an IP address in the appropriate Trap Destination field.
Set the SNMP read community string in SNMP RD COMMUNITY STR.
By default, the SNMP read community string is public
.
5
Set the SMP read-write community string in SNMP RW COMMUNITY
STR. By default, the SNMP read-write community string is private
Save the file.
.
6
7
Use the TFTP server software to upload the configuration file.
278
Updating Firmware Images and Monitoring the PDU Power Status
Updating the FCB Firmware
NOTE: The following procedure uses NET-SNMP, a free SNMP tool for Linux
systems, available at www.net-snmp.org, as an example.
NOTE: The snmpset community property command depends on the community
string data in the FCB Configuration Information. The default SNMP community
string is public.
NOTE: When updating FCB components, such as the CPLD and fan table, the
update sequence is as follows: CPLD > fan table > FCB firmware.
1
Use the TFTP server to upload the FCB firmware image into the FCB
EEPROM.
2
3
Launch the NET-SNMP utility.
Use the snmpset command to update the firmware.
a
b
c
To set TFTP Server IP address, enter the following commands.
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.6.0 a
server_ip
To set Image File Name, enter the following commands.
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.7.0 s
image_file
To upgrade FCB firmware, entering the following command.s
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.100.1.0
i 1
Sample output:
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.6.0 a
10.32.49.64
<- Set TFTP Server IP
SNMPv2-SMI::enterprises.674.20.50.6.0 = IpAddress: 10.32.49.64
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.7.0 s
pmc.01.A.045.01.01.0001.bin <- Set Image File Name
SNMPv2-SMI::enterprises.674.20.50.7.0 = STRING: "pmc.01.A.045.01.01.0001.bin"
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.100.1.0 i
1
<- Upgrade Firmware
SNMPv2-SMI::enterprises.674.20.50.500.1.0 = INTEGER: 1
Updating Firmware Images and Monitoring the PDU Power Status
279
Viewing the FCB Firmware Version Information
NOTE: The following procedure uses NET-SNMP, a free SNMP tool for Linux
systems, available at www.net-snmp.org, as an example.
1
2
Launch the NET-SNMP utility.
Use the snmpset command to view firmware version information.
snmpget -v 2c -c private 10.32.49.67 .1.3.6.1.4.1.674.20.50.2.0
Sample output:
[root@localhost ~]# snmpget -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.2.0
<- Get firmware Version to confirm.
SNMPv2-SMI::enterprises.674.20.50.2.0 = STRING: "V01.A.045.01.01.0001"
Monitoring the External PDU Power Status and
Updating the PDU PMC Firmware
The PowerEdge C8000 server enclosure is primarily connected to an external
PDU. The external PDU includes a power management controller (PMC)
board that is integrated with an Ethernet connector and supports SNMP v2c
that allows you to monitor the PDU power supply modules over the network
and send traps or notifications when critical situations occur.
Before You Begin
1
Install a SNMP utility on your computer. You can install a commercial or a
free SNMP utility.
2
Install a TFTP server software on your computer.
TFTP is used with the SNMP v2c command line interfaces to transfer files
to and from the PDU PMC, update the PMC firmware and modify the
PMC configuration information.
If you are using Linux, install a TFTP server from your distribution.
If you are using Windows, install a commercial or free TFTP server.
280
Updating Firmware Images and Monitoring the PDU Power Status
Checking PDU Indicators
The PMC power/status and identification indicators lights to indicate an
error condition.
•
Power/status indicator blinks amber (about 1 Hz) to indicate an error
condition.
•
Identification indicator blinks blue (about 1 Hz).
Resetting the PDU Network Connection
By default, the PMC is configured to automatically obtain an IP address via
DHCP server.
1
Do three short presses of the reset button within 5 seconds to change the
DHCP IP address on the PMC over to a static IP address.
After the PMC resets, all network and configuration settings restore back
to their default values. The PMC is configured with the following default
network settings:
•
•
•
IP address: 192.168.0.120
Subnet mask: 255.255.255.0
Gateway: 192.168.0.1
The power/status indicator on the front of the PMC board displays the
following behaviors:
•
Blinking amber (500 ms off/5 s on) — Restarts the PMC firmware and
reset to factory default is completed.
•
Blinking amber (250 ms off/5 s on) — Restores the default network
settings to their default values.
2
Do three short presses of the reset button within 5 seconds again to switch
static IP back to reset to default (DHCP).
Updating Firmware Images and Monitoring the PDU Power Status
281
Viewing or Changing the PMC Configuration Information
The PMC configuration information is stored in the PDU PMC board’s
internal EEPROM. The PMC configuration file is a text (TXT) file. You must
use TFTP server to retrieve the configuration data and then use Notepad or a
text editor to view or change the configuration data.
For example, a configuration data should have the following information:
CONNECT.TYPE=STATIC/DHCP
IP=192.168.0.120
NETMASK=255.255.255.0
GATEWAY=192.168.0.1
TRAP.DESTINATION1=0.0.0.0
TRAP.DESTINATION2=0.0.0.0
TRAP.DESTINATION3=0.0.0.0
TRAP.DESTINATION4=0.0.0.0
TRAP.DESTINATION5=0.0.0.0
SNMP.RD.COMMUNITY.STR=public
SNMP.RW.COMMUNITY.STR=private
MANAGE.ACSOCKET.A.DEFAULT.POWER=ON/OFF
MANAGE.ACSOCKET.B.DEFAULT.POWER=ON/OFF
MANAGE.ACSOCKET.C.DEFAULT.POWER=ON/OFF
MANAGE.PDU.DEFAULT.POWER=ON/OFF
MANAGE.PSU.CONFIGURATION=5+1
Configuring the SNMP Traps
1
2
3
4
Import the PDU PMC configuration data.
Use a Notepad or text editor to edit the configuration data.
Enter an IP address in the appropriate Trap Destination field.
Set the SNMP read community string in SNMP RD COMMUNITY STR.
By default, the SNMP read community string is public
.
5
Set the SMP read-write community string in SNMP RW COMMUNITY
STR. By default, the SNMP read-write community string is private
Save the file.
.
6
7
Use the TFTP server software to upload the configuration file.
282
Updating Firmware Images and Monitoring the PDU Power Status
Updating the PMC Firmware
NOTE: The following procedure uses NET-SNMP, a free SNMP tool for Linux
systems, available at www.net-snmp.org, as an example.
1
Use the TFTP server to upload the PMC firmware image into the PMC
EEPROM.
2
3
Launch the NET-SNMP utility.
Use the snmpset command to update the firmware:
a
b
c
To set TFTP Server IP address, enter the following commands.
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.6.0 a
server_ip
To set Image File Name, enter the following commands:
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.7.0 s
image_file
To upgrade PMC firmware, entering the following commands:
snmpset -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.500.1.0
i 1
NOTE: The snmpset community property command depends on the community
string data in the PMC Configuration Information. The default SNMP community
string is public.
Sample output:
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.6.0 a
10.32.49.64
<- Set TFTP Server IP
SNMPv2-SMI::enterprises.674.20.50.6.0 = IpAddress: 10.32.49.64
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.7.0 s
pmc.01.A.045.01.01.0001.bin <- Set Image File Name
SNMPv2-SMI::enterprises.674.20.50.7.0 = STRING: "pmc.01.A.045.01.01.0001.bin"
[root@localhost ~]# snmpset -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.500.1.0 i
1
<- Upgrade Firmware
SNMPv2-SMI::enterprises.674.20.50.500.1.0 = INTEGER: 1
Updating Firmware Images and Monitoring the PDU Power Status
283
Viewing the PMC Firmware Version Information
NOTE: The following procedure uses NET-SNMP, a free SNMP tool for Linux
systems, available at www.net-snmp.org, as an example.
1
2
Launch the NET-SNMP utility.
Use the snmpset command to view firmware version information.
snmpget -v 2c -c community target_ip .1.3.6.1.4.1.674.20.50.2.0
Sample output:
[root@localhost ~]# snmpget -v 2c -c private 10.32.49.67.1.3.6.1.4.1.674.20.50.2.0
<- Get firmware Version to confirm.
SNMPv2-SMI::enterprises.674.20.50.2.0 = STRING: "V01.A.045.01.01.0001"
284
Updating Firmware Images and Monitoring the PDU Power Status
7
Jumpers and Connectors
This section describes the connectors on the various boards in the server
enclosure.
Server Enclosure Boards
The server enclosure has three system boards that make up its building block.
•
•
•
Front Panel Board
Fan Controller Board
Power Management Board
Front Panel Board Connectors
Figure 7-1. Front Panel Board Connectors
Jumpers and Connectors
285
1
3
5
power/event LED
2
4
6
system identification LED
front panel connector
LAN activity LED
thermal sensor
10/100 Mbit NIC LAN port
Fan Controller Board Connectors
Figure 7-2. Fan Controller Board Connectors
1
3
5
7
fan 3 fault LED
2
4
6
8
fan 2 fault LED
fan 1 fault LED
Service mode button
10/100 Mbit NIC LAN port
power/event LED
PDU PMBus connector
system identification LED
286
Jumpers and Connectors
Power Management Board Connectors
Figure 7-3. Front View of the Power Management Board
2
1
3
4
6
5
1
3
5
front panel board connector
system fan connector
power bus bar
2
4
6
power bus bar
power connector (debug-use only)
fan controller board connector
Figure 7-4. Back View of the Power Management Board
1
1
node power distribution board connectors 1-10
Jumpers and Connectors
287
288
Jumpers and Connectors
8
Getting Help
Contacting Dell
NOTE: If you do not have an active Internet connection, you can find contact
information on your purchase invoice, packing slip, bill, or Dell product catalog.
Dell provides several online and telephone-based support and service options.
Availability varies by country and product, and some services may not be
available in your area. To contact Dell for sales, technical support, or
customer service issues:
1
2
3
Visit dell.com/support.
Select your support category.
Verify your country or region in the Choose a Country/Region drop-down
menu at the top of the page.
4
Select the appropriate service or support link based on your need.
Getting Help
289
290
Getting Help
Manual\Chassis\C8000\C8000_HOM_bk0IX.fm
Index
A
D
about the system, 11
Dell
contacting, 289
double-wide sled blank
installing, 190
B
backplane cage
installing, 216
removing, 212
installing, 216
removing, 212
C
command line interfaces, 120
compute sled
installing, 194
removing, 192
fan controller board
connectors, 286
installing, 212
connectors
removing, 211
fan controller board, 286
front panel board, 285
power management board, 287
fan module
installing, 208
removing, 207
console redirection
configuring, 69
enabling, 69
FCB firmware image
updating via compute sled, 275
updating via SNMP, 276
features
back panel, 15
front panel, 13
Index
291
FILE LOCATION: D:\Projects\User Guide\Server\Dell\OOB\HOM\Hardware Owners
Manual\Chassis\C8000\C8000_HOM_bk0IX.fm
front panel board
connectors, 285
installing, 210
single-wide sled blank, 191
removing, 209
I
IPMI command list, 145
indicator
back-panel chassis
identification, 19
back-panel fan 1/2 fault, 19
back-panel fan 3/4 fault, 19
back-panel fan 5/6 fault, 20
back-panel power/event, 19
front panel, 13
front-panel chassis
identification, 18, 248
front-panel chassis status, 18
management port, 20
PDU, 248
power, 35
power/event, 18
system identity, 35
enclosure, 239
installing
backplane cage, 216
compute sled, 194
double-wide sled blank, 190
fan bay cage, 216
fan controller board, 212
fan module, 208
front panel board, 210
PDU PCIB module, 246
PDU PMC board, 243
PDU power supply, 219
PDU PCIB module
installing, 246
removing, 232
PDU PMC board
installing, 243
PDU power status
monitoring, 280
292
Index
PDU power supply
indicator code, 217
installing, 219
removing
backplane cage, 212
removing, 217
double-wide sled blank, 190
fan module, 207
PDU PCIB module, 232
PDU power supply, 217
power sled, 198-218
POST error codes, 42
power management board
connectors, 287
power sled
installing, 200
removing, 198, 200, 218
PSU module
installing, 206
removing, 205
PSU2/4 module assembly, 203
single-wide sled blank, 191
storage sled, 194
PSU1/3 module assembly
installing, 203
removing, 201-202
installing, 204
removing, 203
connecting to PDU, 239
server enclosure boards, 285
fan controller board, 286
front panel board, 285
R
rack installation
external PDU, 231
guidelines, 221
power management board, 287
service tag, 38
installation tasks, 222
server enclosure, 228
tool-less rail, 223
single-wide sled blank
installing, 191
removing, 191
sled bay numbering, 22
Index
293
sled features, 26
system setup
double-wide compute sled, 29
power sled, 36
single-wide compute sled, 26
storage sled, 34
active state power management
boundaries of PSU
sled module configuration, 24
emergency throttling, 87
memory configuration, 92
SNMP, 156
FCB firmware behavior, 158
PMC firmware behavior, 169
SNMP MIB
FCB, 161
PMC, 171
SNMP Support
FCB, 156
PMC, 167
PCI slot configuration, 104
power capping, 84
power management, 78
remote access configuration, 113
SATA configuration, 95
security settings, 107
storage sled
installing, 195
removing, 194
system event log, 50
USB configuration, 105
system features
accessing, 12
entering, 68
general help, 69
System log
See system setup screen
system setup menu, 67
system sensor overview, 61
system setup screen
advanced, 77
boot, 116
exit, 118
main, 74
security, 107
server, 109
Index
294
FILE LOCATION: D:\Projects\User Guide\Server\Dell\OOB\HOM\Hardware Owners
T
troubleshooting
damaged enclosure, 256
enclosure components, 257
expansion cards, 270
external connections, 252
fan modules, 257
hard-drive, 269
memory, 267
NIC, 254
processors, 270
serial device, 253
sled components, 267
system battery, 272
system board, 271
system startup failure, 252
USB device, 252
video, 252
wet enclosure, 255
Index
295
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