C H A P T E R  2

ILOM Platform Features for Sun Fire X2270 Server

This chapter contains information about ILOM’s platform-specific features supported on the Sun Fire X2270 Server.

The following topics are covered in this chapter:



Note - The platform features described in this chapter for the Sun Fire X2270 Server are supported in addition to the features supported in ILOM 2.0 that are common for all x64-based servers.



Hardware Information

This section provides information about the system hardware, including:

Server Locator Indicator

The Server Locator indicator is a pair of small lights that you turn on to help you identify a specific server among many in a data center. One light is positioned on the front of the server in the upper-left corner, and the other light is on the back of the server in the lower-center section.

Hardware Port Locations

ILOM communicates through the server’s serial management port and through a network management Ethernet port. Use FIGURE 2-1 and TABLE 2-1 to find the location of the serial port and the network management Ethernet port on the Sun Fire X2270 Server.

FIGURE 2-1 Sun Fire X2270 Back Panel Port Locations


Figure showing the back panel of the Sun Fire X2270 Server.


TABLE 2-1 Sun Fire X2270 Back Panel Port Locations

Label

Connector/Slot

Label

Connector/Slot

1

Serial Management (SER MGT) / RS-232-F
RJ-45 serial port

3

Gigabit Ethernet port (NET-1)

2

Gigabit Ethernet port (NET-0)

4

Network Management (NET MGT) Ethernet port (available only in systems that contain an SP module)



Switch Serial Port Output Between SP and Host Console

You can switch the serial port output of the Sun Fire X2270 Server between the SP console (NET MGT) and the host console (COM1). By default, the SP console is connected to the system serial port. This feature is beneficial for Windows kernel debugging, as it enables you to view non-ASCII character traffic from the host console.

You can switch serial port output using either the ILOM web interface or the ILOM command-line interface (CLI). For instructions, see the following sections:



caution icon Caution - You should set up the network on the SP before attempting to switch the serial port owner to the host server. If a network is not set up, and you switch the serial port owner to the host server, you will be unable to connect via the CLI interface or web interface to change the serial port owner back to the SP. To change the serial port owner back to the SP, you must perform the procedures in “Restoring ILOM Access to the Serial Console” in the Sun Fire X2270 Server Service Manual.



procedure icon  Switch Serial Port Output Using the Web Interface

1. Log in to the ILOM web interface.

2. Select Configuration right arrow Serial Port.

The Serial Port Settings page appears.


Screenshot of the Serial Port Settings page

3. Click the Owner drop-down list and select Host Server as the desired serial port owner.

The drop-down list allows you to select either Service Processor or Host Server.

By default, Service Processor is selected.

4. Click Save for your change to take effect.


procedure icon  Switch Serial Port Output Using the CLI

To switch the serial port output using the ILOM CLI, perform the following steps:

1. Log in to the ILOM CLI.

2. To set the serial port owner, type:

-> set /SP/serial/portsharing owner=host

By default, owner=SP.


Clear Server Faults

When a server component fails, the server generates a component-specific fault that is captured by the ILOM SP. Some faults are cleared automatically when the failed component is replaced, but faults generated for components that are not hot-pluggable have to be cleared manually. You can use either the ILOM web interface or the command-line interface (CLI) to manually clear faults.

For the Sun Fire X2270 Server, the following types of faults must be cleared manually after the faulty component is replaced:

When clearing faults, give consideration to the following:

The procedure for clearing a fault differs depending on the type of fault:


ILOM Sideband Management

By default, you connect to the server’s service processor (SP) using the out-of-band network management port (NET MGT). The ILOM sideband management feature enables you to select either the NET MGT port or one of the server’s Gigabit Ethernet ports (NET 0, 1), which are in-band ports, to send and receive ILOM commands to and from the server SP. In-band ports are also called sideband ports.

The advantage of using a sideband management port to manage the server’s SP is that one less cable connection and one less network session is needed. In configurations where a great number of servers are being managed, such as data centers, sideband management can represent a significant savings in hardware and network utilization.



Note - Connectivity to the server SP might be lost when the SP management port configuration is changed while you are connected to the SP using a network connection, such as SSH, web, or Sun ILOM Remote Console.


You can configure sideband management using either the web interface, the command-line interface (CLI), the BIOS. For instructions, see the following sections:

Special Considerations for Sideband Management

When sideband management is enabled in ILOM, the following conditions might occur:


procedure icon  Configure Sideband Management Using the Web Interface

1. Log in to the ILOM web interface.

2. Select Configuration --> Network.

The Network Settings page appears.


Screenshot of the Network Settings page

3. In the Network Settings page, do the following:

a. Select DHCP to acquire the IP address automatically or specify the appropriate IP address.

b. To select a sideband management port, click the Management Port drop-down list and select the desired management port.

The drop-down list allows you to select either of the Gigabit Ethernet ports, /SYS/SP/NETn, where n is 0 or 1.

The SP NET MGT port, /SYS/SP/NET0, is the default.

4. Click Save for the changes to take effect.


procedure icon  Configure Sideband Management Using the CLI

1. Log in to the ILOM CLI using the SP’s serial console port.

For instructions, see the Sun Fire X2270 Server Installation Guide (820-5604) or the Sun Integrated Lights Out Manager 2.0 User’s Guide (820-1188).

The ILOM CLI prompt appears (->).

2. To show the current port settings, type:

-> show /SP/network

The network properties appear. For example:


/SP/network
    Targets:
    Properties:
        commitpending = (Cannot show property)
        dhcp_server_ip = none
        ipaddress = xx.xx.xx.xx
        ipdiscovery = static
        ipgateway = xx.xx.xx.xx
        ipnetmask = xx.xx.xx.xx
        macaddress = 11.11.11.11.11.86
        managementport = /SYS/SP/NET0
        outofbandmacaddress = 11.11.11.11.11.86
        pendingipaddress = xx.xx.xx.xx
        pendingipdiscovery = static
        pendingipgateway =  xx.xx.xx.xx
        pendingipnetmask =  xx.xx.xx.xx
        pendingmanagementport = /SYS/SP/NET0
        sidebandmacaddress = 11.11.11.11.11.87
        state = enabled

In the above output, the current active MAC address (macaddress) is the same as the SP’s out-of-band MAC address (outofbandmacaddress), and the current active management port (managementport) is set to the default (/SYS/SP/NET0).

3. To set the SP management port to a sideband port, type the following commands:

-> set /SP/network pendingmanagementport=/SYS/MB/NETn

Where n equals 0 or 1.

-> set commitpending=true

4. To view the change, type:

-> show /SP/network

The network properties appear and show that the change has taken effect. For example:


/SP/network
    Targets:
    Properties:
        commitpending = (Cannot show property)
        dhcp_server_ip = none
        ipaddress = xx.xx.xx.xx
        ipdiscovery = static
        ipgateway = xx.xx.xx.xx
        ipnetmask = xx.xx.xx.xx
        macaddress = 11.11.11.11.11.87
        managementport = /SYS/MB/NETn
        outofbandmacaddress = 11.11.11.11.11.86
        pendingipaddress = xx.xx.xx.xx
        pendingipdiscovery = static
        pendingipgateway =  xx.xx.xx.xx
        pendingipnetmask =  xx.xx.xx.xx
        pendingmanagementport = /SYS/MB/NETn
        sidebandmacaddress = 11.11.11.11.11.87
        state = enabled

In the above output, the macaddress matches the sidebandmacaddress, and the managementport matches the pendingmanagementport.


Run IPMItool From the Host

The network management (NET MGT) interface enables you to use the host operating system to execute ipmitool commands on the ILOM service processor. Using ipmitool commands, you can perform server initialization, monitoring, and maintenance tasks from the host operating system.



Note - The latest version of ipmitool is available on the Sun Fire X2270 Server Tools & Drivers CD.


The Sun Fire X2270 Server supports in-band systems management using IPMI v1.5 or 2.0 with the NET MGT interface and the IPMI kernel driver. IPMI is an industry-supported standard for performing autonomous platform management functions.

You can run ipmitool commands on Solaris, Linux, and Windows Server operating systems. For a description of the ipmitool commands and options, see the ipmitool manpage on the web at:

http://ipmitool.sourceforge.net/manpage.html

For a listing of the present server components, SP event log entries, or SP information on the network interface card (NIC), use the following ipmitool commands that are appropriate for your server operating system.

# ipmitool -I interface sdr list

# ipmitool -I interface sel list

# ipmitool -I interface lan print 1

Where interface is bmc on Solaris systems and open on Linux systems.

# ipmitool -I ms sdr list

# ipmitool -I ms sel list

# ipmitool -I ms lan print 1

If you are using a Solaris or Linux operating system, refer to Remote Monitoring of Sun x64 Systems Using IPMITOOL and IPMIEVD (820-1011) for ipmitool installation and user instructions. This document is available on the web at:

http://www.sun.com/blueprints/0107/820-1011.pdf

If you are using a Windows Server 2003 R2 operating system, install the optional Windows Hardware Management interface driver. For instructions on how to install this driver, refer to Hardware Management in Microsoft Windows Server 2003 R2 RC0 and perform the procedure “How to Enable the Hardware Management Feature.” It is not necessary to perform any of the other procedures described in this document, such as “Configuration and Security.” This document is available on the web at:

http://www.microsoft.com/technet/scriptcenter/preview/wsm/enable.mspx#ECB

Additional information about IPMI, including the ipmitool manpage and detailed specifications, is available on the web at the following locations:

http://ipmitool.sourceforge.net/manpage.html

http://openipmi.sourceforge.net

http://www.intel.com/design/servers/ipmi/spec.htm


Update ILOM Firmware Using the IPMIflash Utility

The IPMIflash utility, provided on the Tools & Drivers CD, provides the ability to update the ILOM service processor firmware and BIOS remotely over the management network or locally from the server. This utility is available for Linux and Solaris operating systems. Refer to the Addendum to the Sun Integrated Lights Out Manager 2.0 User’s Guide (820-4198) for more information and instructions for updating ILOM firmware using the IPMIflash utility.


Sensors

The Sun Fire X2270 Server includes several sensors that generate entries in the system event log (SEL) when the sensor crosses a threshold. Many of these readings are used to adjust the fan speeds and perform other actions, such as illuminating LEDs and powering off the chassis.

These sensors can also be configured to generate IPMI PET traps as described in the Sun Integrated Lights Out Manager 2.0 User’s Guide (820-1188).



caution icon Caution - Do not use any interface other than the Integrated Lights Out Manager CLI or web interface to alter the state or configuration of any sensor or LED. Doing so could void your warranty.


This section describes the sensors and provides details about their operation.

Temperature and Voltage Readings

The system monitors two temperature sensors and fourteen voltage sensors. They all generate IPMI events that are logged in the system event log (SEL) when an upper threshold is exceeded. The temperature sensor readings are used to adjust the fan speeds. Any sensor outside a threshold will cause the SP to illuminate the service LEDs and possibly power off the server.

The sensors and their respective thresholds are as follows:

List of Sensors

TABLE 2-2 lists the sensors.


TABLE 2-2 List of Sensors

Sensor ID

ACPI

/P0/PRSNT

/P1/PRSNT

/P0/D0/PRSNT

/P0/D1/PRSNT

/P0/D2/PRSNT

/P0/D3/PRSNT

/P0/D4/PRSNT

/P0/D5/PRSNT

/P1/D0/PRSNT

/P1/D1/PRSNT

/P1/D2/PRSNT

/P1/D3/PRSNT

/P1/D4/PRSNT

/P1/D5/PRSNT

/MB/T_AMB

MB/V_+12V

MB/V_+1V5

MB/V_+3V3_STBY

MB/V_+3V3

MB/V_+3V3_VBAT

MB/V_+1V5

MB/P0/V_+1V8

MB/P1/V_+1V8

MB/P0/V_VTT

MB/P1/V_VTT

MB/P0/V_+1V5_DDR

MB/P1/V_+1V5_DDR

MB/P0/V_VCCP

MB/P1/V_VCCP

T_AMB

F0/TACH

F1/TACH

F2/TACH


Sensor Details

TABLE 2-3 provides detailed information about individual sensors.


TABLE 2-3 Sensor Details

Sensor

Data

Sensor ID

ACPI (0x0)

Entity ID

7.0

Sensor Type (Discrete)

System ACPI Power State

States Asserted

System ACPI Power State

[S0/G0: working]

 

 

Sensor ID

/P0/PRSNT (0x1)

Entity ID

3.0

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Present]

 

 

Sensor ID

/P1/PRSNT (0x2)

Entity ID

3.1

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D0/PRSNT (0x3)

Entity ID

32.0

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D1/PRSNT (0x4)

Entity ID

32.1

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D2/PRSNT (0x5)

Entity ID

32.2

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D3/PRSNT (0x6)

Entity ID

32.3

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D4/PRSNT (0x7)

Entity ID

32.4

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P0/D5/PRSNT (0x8)

Entity ID

32.5

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D0/PRSNT (0x9)

Entity ID

32.6

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D1/PRSNT (0xa)

Entity ID

32.7

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D2/PRSNT (0xb)

Entity ID

32.8

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D3/PRSNT (0xc)

Entity ID

32.9

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D4/PRSNT (0xd)

Entity ID

32.10

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/P1/D5/PRSNT (0xe)

Entity ID

32.11

Sensor Type (Discrete)

Entity Presence

States Asserted

Availability State

[Device Absent]

 

 

Sensor ID

/MB/T_AMB (0xf)

Entity ID

7.8

Sensor Type (Analog)

Temperature

Sensor Reading

22 (+/- 0) degrees C

Status

ok

Lower Non-Recoverable

-10.000

Lower Critical

-5.000

Lower Non-Critical

0.000

Upper Non-Critical

50.000

Upper Critical

55.000

Upper Non-Recoverable

60.000

Assertions Enabled

lnc- lcr- lnr- unc+ ucr+ unr+

Deassertions Enabled

lnc- lcr- lnr- unc+ ucr+ unr+

 

 

Sensor ID

MB/V_+12V (0x10)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

12.033 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

9.576

Lower Non-Critical

10.773

Upper Non-Critical

13.167

Upper Critical

14.364

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/V_+5V (0x11)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

5.122 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

3.978

Lower Non-Critical

4.498

Upper Non-Critical

5.486

Upper Critical

5.980

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/V_+3V3_STBY (0x12)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

3.251 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

2.597

Lower Non-Critical

2.993

Upper Non-Critical

3.595

Upper Critical

3.887

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/V_+3V3 (0x13)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

3.371 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

2.597

Lower Non-Critical

2.993

Upper Non-Critical

3.595

Upper Critical

3.887

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/V_+3V3_VBAT (0x14)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

2.198 (+/- 0) Volts

Status

Lower Critical

Lower Non-Recoverable

na

Lower Critical

2.591

Lower Non-Critical

2.999

Upper Non-Critical

3.595

Upper Critical

3.894

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/V_+1V5 (0x15)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.499 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

1.192

Lower Non-Critical

1.345

Upper Non-Critical

1.640

Upper Critical

1.794

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P0/V_+1V8 (0x16)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.823 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

1.431

Lower Non-Critical

1.617

Upper Non-Critical

1.980

Upper Critical

2.156

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P1/V_+1V8 (0x17)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.823 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

1.431

Lower Non-Critical

1.617

Upper Non-Critical

1.980

Upper Critical

2.156

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P0/V_VTT (0x18)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.109 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

0.873

Lower Non-Critical

0.979

Upper Non-Critical

1.204

Upper Critical

1.310

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P1/V_VTT (0x19)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.109 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

0.873

Lower Non-Critical

0.979

Upper Non-Critical

1.204

Upper Critical

1.310

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P0/V_+1V5_DDR (0x1a)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.510 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

1.192

Lower Non-Critical

1.345

Upper Non-Critical

1.640

Upper Critical

1.794

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P1/V_+1V5_DDR (0x1b)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.510 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

1.192

Lower Non-Critical

1.345

Upper Non-Critical

1.640

Upper Critical

1.794

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P0/V_VCCP (0x1c)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.086 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

0.791

Lower Non-Critical

0.897

Upper Non-Critical

1.097

Upper Critical

1.192

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

MB/P1/V_VCCP (0x1d)

Entity ID

10.0

Sensor Type (Analog)

Voltage

Sensor Reading

1.086 (+/- 0) Volts

Status

ok

Lower Non-Recoverable

na

Lower Critical

0.791

Lower Non-Critical

0.897

Upper Non-Critical

1.097

Upper Critical

1.192

Upper Non-Recoverable

na

Assertions Enabled

lnc- lcr- unc+ ucr+

Deassertions Enabled

lnc- lcr- unc+ ucr+

 

 

Sensor ID

T_AMB (0xa5)

Entity ID

7.0

Sensor Type (Analog)

Temperature

Sensor Reading

25 (+/- 0) degrees C

Status

ok

Lower Non-Recoverable

na

Lower Critical

na

Lower Non-Critical

na

Upper Non-Critical

na

Upper Critical

45.000

Upper Non-Recoverable

50.000

Assertions Enabled

ucr+ unr+

Deassertions Enabled

ucr+ unr+

 

 

Sensor ID

F0/TACH (0x1e)

Entity ID

29.0

Sensor Type (Analog)

Fan

Sensor Reading

2900 (+/- 0) RPM

Status

ok

Lower Non-Recoverable

200.000

Lower Critical

na

Lower Non-Critical

500.000

Upper Non-Critical

na

Upper Critical

na

Upper Non-Recoverable

na

Assertions Enabled

lnc- lnr-

Deassertions Enabled

lnc- lnr-

 

 

Sensor ID

F1/TACH (0x1f)

Entity ID

29.0

Sensor Type (Analog)

Fan

Sensor Reading

5800 (+/- 0) RPM

Status

ok

Lower Non-Recoverable

200.000

Lower Critical

na

Lower Non-Critical

500.000

Upper Non-Critical

na

Upper Critical

na

Upper Non-Recoverable

na

Assertions Enabled

lnc- lnr-

Deassertions Enabled

lnc- lnr-

 

 

Sensor ID

F2/TACH (0x20)

Entity ID

29.0

Sensor Type (Analog)

Fan

Sensor Reading

6000 (+/- 0) RPM

Status

ok

Lower Non-Recoverable

200.000

Lower Critical

na

Lower Non-Critical

500.000

Upper Non-Critical

na

Upper Critical

na

Upper Non-Recoverable

na

Assertions Enabled

lnc- lnr-

Deassertions Enabled

lnc- lnr-



View Sensors From the System BIOS

In Sun Fire X2270 servers that do not contain a service processor, you can view sensor errors by accessing the system event log from the system BIOS. Sensor errors that are recorded include those for voltage, temperature, fans, and DIMM errors. System BIOS sensor errors are listed in TABLE 2-4.


procedure icon  View the System BIOS Event Log

1. During system boot, click F2 to enter the system BIOS.

2. Select Advanced right arrow Event Log Configuration right arrow View Event Log.



Note - Alternatively, if you want to view sensor information that is updated in real time, select Advanced right arrow Event Log Configuration right arrow Hardware Health Configuration.



TABLE 2-4 Sensors Listed in the System BIOS Event Log

Sensor Type

Sensor ID

Voltage

3.3V Standby

3.3V Main

+5V

VCCP

+12V

-12V

A-in0

A-in1

A-in2

A-in3

A-in4

A-in5

A-in6

A-in7

VBAT

Temperature

Temperature

Fans

CPU Fan Speed

SYS Fan Speed

AUX Fan Speed

CPU Fan Speed

SYS Fan Speed

AUX Fan Speed

DIMM Errors

Correctable

Uncorrectable