sr630 v2 Maintenance Manual
sr630 v2 Maintenance Manual
Maintenance Manual
Before using this information and the product it supports, be sure to read and understand the safety
information and the safety instructions, which are available at:
https://pubs.lenovo.com/safety_documentation/
In addition, ensure that you are familiar with the terms and conditions of the Lenovo warranty for your server,
which can be found at:
http://datacentersupport.lenovo.com/warrantylookup
Ennen kuin asennat tämän tuotteen, lue turvaohjeet kohdasta Safety Information.
Notes:
• The product is not suitable for use at visual display workplaces according to §2 of the Workplace
Regulations.
• The set-up of the server is made in the server room only.
CAUTION:
This equipment must be installed or serviced by trained personnel, as defined by the NEC, IEC 62368-
1 & IEC 60950-1, the standard for Safety of Electronic Equipment within the Field of Audio/Video,
Information Technology and Communication Technology. Lenovo assumes you are qualified in the
servicing of equipment and trained in recognizing hazards energy levels in products. Access to the
equipment is by the use of a tool, lock and key, or other means of security, and is controlled by the
authority responsible for the location.
Important: Electrical grounding of the server is required for operator safety and correct system function.
Proper grounding of the electrical outlet can be verified by a certified electrician.
Use the following checklist to verify that there are no potentially unsafe conditions:
1. Make sure that the power is off and the power cord is disconnected.
2. Check the power cord.
• Make sure that the third-wire ground connector is in good condition. Use a meter to measure third-
wire ground continuity for 0.1 ohm or less between the external ground pin and the frame ground.
• Make sure that the power cord is the correct type.
To view the power cords that are available for the server:
a. Go to: http://dcsc.lenovo.com/#/
Performance, ease of use, reliability, and expansion capabilities were key considerations in the design of the
server. These design features make it possible for you to customize the system hardware to meet your needs
today and provide flexible expansion capabilities for the future.
The server comes with a limited warranty. For details about the warranty, see:
https://support.lenovo.com/us/en/solutions/ht503310
When you contact Lenovo for help, the machine type and serial number information helps support
technicians to identify your server and provide faster service.
The machine type and serial number are on the ID label on the right rack latch in the front of the server.
Note: The pull-out information tab is located on the right bottom of the front side of your server. For detailed
information, see “Front view” on page 19.
The system service label, which is on the top cover, provides a quick response (QR) code for mobile access
to service information. Scan the QR code with a mobile device and a QR code reader application to get quick
access to the Lenovo Service Web site for this server. The Lenovo Service Information Web site provides
additional information for parts installation and replacement videos, and error codes for server support.
Figure 3. QR code
Specifications
The following information is a summary of the features and specifications of the server. Depending on the
model, some features might not be available, or some specifications might not apply.
Specification Description
• 1U
• Height: 43.00 mm (1.69 inches)
Dimension • Width: 439.20 mm (17.29 inches)
• Depth: 772.60 mm (30.42 inches)
Note: The depth is measured without PSU handles or security bezel installed.
Supports multi-core Intel Xeon processors, with integrated memory controller and
Intel Mesh Ultra Path Interconnect (UPI) topology.
• Up to two Intel® Xeon® processors
• Designed for Land Grid Array (LGA) 4189 socket
• Scalable up to 40 cores per socket, 80 cores in total
• Thermal Design Power (TDP): up to 270 watts
Processor • Supports 3 UPI links up to 11.2 GT/s
Only one processor is supported if you use the 8351N processor or processor with
the suffix of “U”.
For technical rules for processors and heat sinks, see “Technical rules for thermal
limitation” on page 107.
Chapter 1. Introduction 3
Table 1. Server specifications (continued)
Specification Description
See “Memory module installation order” in Setup Guide for detailed information
about memory configuration and setup.
Notes:
• The operating speed and total memory capacity depend on the processor model
and UEFI settings.
• All Icelake Platinum and Gold CPUs support PMEM. For Icelake Silver CPUs, only
processor 4314 supports PMEM.
• When 256 GB 3DS RDIMM/512 GB PMEM is installed, the ambient temperature
must be limited to 30°C or lower.
For technical rules for memory modules, see “Memory module installation rules and
order” on page 88.
References:
• Complete list of available operating systems: https://lenovopress.com/osig.
Specification Description
Note: VMware ESXi does not support ThinkSystem 2.5 U.3 6500 ION 30.72TB Read
Intensive NVMe PCIe 4.0 x4 HS SSD.
Front:
• Up to four 3.5-inch hot-swap SAS/SATA drives
• Up to four 3.5-inch hot-swap AnyBay (SAS/SATA/NVMe) drives
• Up to four 2.5-inch hot-swap SAS/SATA drives
• Up to eight 2.5-inch hot-swap SAS/SATA/U.3 NVMe drives
• Up to six 2.5-inch hot-swap SAS/SATA and four 2.5-inch hot-swap AnyBay (SAS/
SATA/NVMe) drives
• Up to six 2.5-inch hot-swap SAS/SATA and four 2.5-inch hot-swap NVMe drives
• Up to six 2.5-inch hot-swap SAS/SATA and two 2.5-inch hot-swap AnyBay (SAS/
SATA/NVMe) drives and two 2.5-inch hot-swap NVMe drives
• Up to ten 2.5-inch hot-swap NVMe drives
• Up to ten 2.5-inch hot-swap AnyBay (SAS/SATA/NVMe) drives
Internal drives • Up to 16 hot-swap EDSFF drives
Inside:
• Up to two internal SATA or NVMe M.2 drives
Rear:
• Up to two 2.5-inch hot-swap SAS/SATA or NVMe drives
• Up to two 7mm hot-swap SATA or NVMe drives
Notes:
• M.2 and 7mm drives are not supported at the same time.
• If PMEM or 256 GB DIMM is used, rear 2.5-inch drives are not supported.
• For the server model with 16 front EDSFF drives, M.2 drives are not supported.
• For technical rules for drives, see “Technical rules for drives” on page 102.
Depending on the model, your server supports up to three PCIe slots in the rear.
For locations and technical rules for PCIe slots, see “Rear view” on page 39 and
“Technical rules for PCIe adapters” on page 103.
Chapter 1. Introduction 5
Table 1. Server specifications (continued)
Specification Description
For technical rules for GPU, see “Technical rules for GPU adapters” on page 110.
Notes:
To prevent potential thermal issues, change the Misc setting in the BIOS from
Option3 (default value) to Option1 if the following two conditions are met:
• The server is equipped with a GPU adapter.
• The UEFI firmware version is AFE128B or later.
For the method of changing the Misc setting, see https://support.lenovo.com/us/en/
solutions/TT1832.
• Front:
– One VGA connector (optional)
– One USB 2.0 connector
– One USB 3.2 Gen 1 (5Gbps) connector
– One external diagnostics connector
– One diagnostics panel (optional)
– One LCD diagnostics panel (optional)
Input/Output (I/O) features • Rear:
– One VGA connector
– Three USB 3.2 Gen 1 (5Gbps) connectors
– Ethernet connectors on OCP 3.0 Ethernet adapter (optional)
– One RJ45 BMC management network connector
– One serial port (optional)
For detailed information about each component, see “Front view” on page 19 and
“Rear view” on page 39.
Specification Description
For technical rules for storage controller adapters, see “Technical rules for PCIe
adapters” on page 103.
For technical rules for RAID configuration, see “Technical rules for RAID
configuration” on page 103.
Chapter 1. Introduction 7
Table 1. Server specifications (continued)
Specification Description
When the system is powered off but still plugged in to AC power, fans 1 and 2 may
continue to spin at a much lower speed. This is the system design to provide proper
cooling.
For technical rules for system fans, see “Technical rules for system fans” on page
109.
Specification Description
Notes:
• These sound power levels are measured in controlled acoustical environments
according to procedures specified by ISO 7779 and are reported in accordance
with ISO 9296.
• The declared sound levels may change depending on configuration/conditions, for
example, with high-power NICs, high-power processors and GPUs, such as
ThinkSystem Mellanox ConnectX-6 HDR/200GbE QSFP56 1-port/2-port PCIe
Adapter, ThinkSystem Broadcom 57454 10GBASE-T 4-port OCP Ethernet
Adapter.
• Government regulations (such as those prescribed by OSHA or European
Community Directives) may govern noise level exposure in the workplace and may
Chapter 1. Introduction 9
Table 1. Server specifications (continued)
Specification Description
apply to you and your server installation. The actual sound pressure levels in your
installation depend upon a variety of factors, including the number of racks in the
installation; the size, materials, and configuration of the room; the noise levels
from other equipment; the room ambient temperature, and employee's location in
relation to the equipment. Further, compliance with such government regulations
depends on a variety of additional factors, including the duration of employees'
exposure and whether employees wear hearing protection. Lenovo recommends
that you consult with qualified experts in this field to determine whether you are in
compliance with the applicable regulations.
CAUTION:
• 240 V dc input (input range: 180-300 V dc) is supported in Chinese Mainland
ONLY.
• Power supply with 240 V dc input cannot support hot plugging power cord
function. Before removing the power supply with dc input, please turn off
server or disconnect dc power sources at the breaker panel or by turning off
the power source. Then, remove the power cord.
Specification Description
The server is designed for standard data center environment and is recommended to
be placed in industrial data center. Depending on hardware configurations, the server
complies with ASHRAE Class A2, A3, or A4 specifications with certain thermal
restrictions. System performance may be impacted when operating temperature is
out of permitted conditions.
Particulate contamination
Attention: Airborne particulates (including metal flakes or particles) and reactive gases acting alone or in
combination with other environmental factors such as humidity or temperature might pose a risk to the
device that is described in this document.
Risks that are posed by the presence of excessive particulate levels or concentrations of harmful gases
include damage that might cause the device to malfunction or cease functioning altogether. This
specification sets forth limits for particulates and gases that are intended to avoid such damage. The limits
must not be viewed or used as definitive limits, because numerous other factors, such as temperature or
moisture content of the air, can influence the impact of particulates or environmental corrosives and gaseous
Chapter 1. Introduction 11
contaminant transfer. In the absence of specific limits that are set forth in this document, you must
implement practices that maintain particulate and gas levels that are consistent with the protection of human
health and safety. If Lenovo determines that the levels of particulates or gases in your environment have
caused damage to the device, Lenovo may condition provision of repair or replacement of devices or parts
on implementation of appropriate remedial measures to mitigate such environmental contamination.
Implementation of such remedial measures is a customer responsibility.
Contaminant Limits
Reactive gases Severity level G1 as per ANSI/ISA 71.04-19851:
• The copper reactivity level shall be less than 200 Angstroms per month (Å/month ≈ 0.0035 μg/
cm2-hour weight gain).2
• The silver reactivity level shall be less than 200 Angstroms per month (Å/month ≈ 0.0035 μg/
cm2-hour weight gain).3
• The reactive monitoring of gaseous corrosivity must be conducted approximately 5 cm (2 in.) in
front of the rack on the air inlet side at one-quarter and three-quarter frame height off the floor
or where the air velocity is much higher.
Airborne Data centers must meet the cleanliness level of ISO 14644-1 class 8.
particulates
For data centers without airside economizer, the ISO 14644-1 class 8 cleanliness might be met by
choosing one of the following filtration methods:
• The room air might be continuously filtered with MERV 8 filters.
• Air entering a data center might be filtered with MERV 11 or preferably MERV 13 filters.
For data centers with airside economizers, the choice of filters to achieve ISO class 8 cleanliness
depends on the specific conditions present at that data center.
• The deliquescent relative humidity of the particulate contamination should be more than 60%
RH.4
• Data centers must be free of zinc whiskers.5
1ANSI/ISA-71.04-1985. Environmental conditions for process measurement and control systems: Airborne
contaminants. Instrument Society of America, Research Triangle Park, North Carolina, U.S.A.
2The derivation of the equivalence between the rate of copper corrosion growth in the thickness of the corrosion
product in Å/month and the rate of weight gain assumes that Cu2S and Cu2O grow in equal proportions.
3The derivation of the equivalence between the rate of silver corrosion growth in the thickness of the corrosion
product in Å/month and the rate of weight gain assumes that Ag2S is the only corrosion product.
4The deliquescent relative humidity of particulate contamination is the relative humidity at which the dust absorbs
enough water to become wet and promote ionic conduction.
5 Surface debris is randomly collected from 10 areas of the data center on a 1.5 cm diameter disk of sticky
electrically conductive tape on a metal stub. If examination of the sticky tape in a scanning electron microscope
reveals no zinc whiskers, the data center is considered free of zinc whiskers.
Firmware updates
Several options are available to update the firmware for the server.
You can use the tools listed here to update the most current firmware for your server and the devices that are
installed in the server.
Important terminology
• In-band update. The installation or update is performed using a tool or application within an operating
system that is executing on the server’s core CPU.
• Out-of-band update. The installation or update is performed by the Lenovo XClarity Controller collecting
the update and then directing the update to the target subsystem or device. Out-of-band updates have no
dependency on an operating system executing on the core CPU. However, most out-of-band operations
do require the server to be in the S0 (Working) power state.
• On-Target update. The installation or update is initiated from an installed operating system executing on
the target server itself.
• Off-Target update. The installation or update is initiated from a computing device interacting directly with
the server’s Lenovo XClarity Controller.
• UpdateXpress System Packs (UXSPs). UXSPs are bundled updates designed and tested to provide the
interdependent level of functionality, performance, and compatibility. UXSPs are server machine-type
specific and are built (with firmware and device driver updates) to support specific Windows Server, Red
Hat Enterprise Linux (RHEL) and SUSE Linux Enterprise Server (SLES) operating system distributions.
Machine-type-specific firmware-only UXSPs are also available.
I/O
Update Core Devices Com-
Methods System Firm- Graphi- mand
Suppor- Firmware ware cal user line Supports
Tool ted Updates Updates interface interface UXSPs
Lenovo XClarity Provisioning Manager In-band2 √ √
(LXPM)
On-
Target
On-
Target
Off-
Target
Chapter 1. Introduction 13
I/O
Update Core Devices Com-
Methods System Firm- Graphi- mand
Suppor- Firmware ware cal user line Supports
Tool ted Updates Updates interface interface UXSPs
Lenovo XClarity Essentials In-band √ All I/O √ √
UpdateXpress devices
(LXCE) Out-of-
band
On-
Target
Off-
Target
Off-
Target
Off-
Target
On-
Target
Off-
Target
Notes:
1. For I/O firmware updates.
2. For BMC and UEFI firmware updates.
Note: By default, the Lenovo XClarity Provisioning Manager Graphical User Interface is displayed when
you start the server and press the key specified in the on-screen instructions. If you have changed that
default to be the text-based system setup, you can bring up the Graphical User Interface from the text-
based system setup interface.
For additional information about using Lenovo XClarity Provisioning Manager to update firmware, see:
“Firmware Update” section in the LXPM documentation compatible with your server at https://
pubs.lenovo.com/lxpm-overview/
Important: Lenovo XClarity Provisioning Manager (LXPM) supported version varies by product. All
versions of Lenovo XClarity Provisioning Manager are referred to as Lenovo XClarity Provisioning Manager
and LXPM in this document, unless specified otherwise. To see the LXPM version supported by your
server, go to https://pubs.lenovo.com/lxpm-overview/.
• Lenovo XClarity Controller
If you need to install a specific update, you can use the Lenovo XClarity Controller interface for a specific
server.
Notes:
– To perform an in-band update through Windows or Linux, the operating system driver must be installed
and the Ethernet-over-USB (sometimes called LAN over USB) interface must be enabled.
For additional information about configuring Ethernet over USB, see:
“Configuring Ethernet over USB” section in the XCC documentation version compatible with your
server at https://pubs.lenovo.com/lxcc-overview/
– If you update firmware through the Lenovo XClarity Controller, make sure that you have downloaded
and installed the latest device drivers for the operating system that is running on the server.
For specific details about updating firmware using Lenovo XClarity Controller, see:
“Updating Server Firmware” section in the XCC documentation compatible with your server at https://
pubs.lenovo.com/lxcc-overview/
Important: Lenovo XClarity Controller (XCC) supported version varies by product. All versions of Lenovo
XClarity Controller are referred to as Lenovo XClarity Controller and XCC in this document, unless
specified otherwise. To see the XCC version supported by your server, go to https://pubs.lenovo.com/lxcc-
overview/.
• Lenovo XClarity Essentials OneCLI
Lenovo XClarity Essentials OneCLI is a collection of command line applications that can be used to
manage Lenovo servers. Its update application can be used to update firmware and device drivers for
your servers. The update can be performed within the host operating system of the server (in-band) or
remotely through the BMC of the server (out-of-band).
For specific details about updating firmware using Lenovo XClarity Essentials OneCLI is available at:
https://pubs.lenovo.com/lxce-onecli/onecli_c_update
• Lenovo XClarity Essentials UpdateXpress
Lenovo XClarity Essentials UpdateXpress provides most of OneCLI update functions through a graphical
user interface (GUI). It can be used to acquire and deploy UpdateXpress System Pack (UXSP) update
packages and individual updates. UpdateXpress System Packs contain firmware and device driver
updates for Microsoft Windows and for Linux.
Chapter 1. Introduction 15
You can obtain Lenovo XClarity Essentials UpdateXpress from the following location:
https://datacentersupport.lenovo.com/solutions/lnvo-xpress
• Lenovo XClarity Essentials Bootable Media Creator
You can use Lenovo XClarity Essentials Bootable Media Creator to create bootable media that is suitable
for firmware updates, VPD updates, inventory and FFDC collection, advanced system configuration, FoD
Keys management, secure erase, RAID configuration, and diagnostics on supported servers.
You can obtain Lenovo XClarity Essentials BoMC from the following location:
https://datacentersupport.lenovo.com/solutions/lnvo-bomc
• Lenovo XClarity Administrator
If you are managing multiple servers using the Lenovo XClarity Administrator, you can update firmware for
all managed servers through that interface. Firmware management is simplified by assigning firmware-
compliance policies to managed endpoints. When you create and assign a compliance policy to managed
endpoints, Lenovo XClarity Administrator monitors changes to the inventory for those endpoints and flags
any endpoints that are out of compliance.
For additional information about using Lenovo XClarity Administrator to update firmware, see:
http://sysmgt.lenovofiles.com/help/topic/com.lenovo.lxca.doc/update_fw.html
• Lenovo XClarity Integrator offerings
Lenovo XClarity Integrator offerings can integrate management features of Lenovo XClarity Administrator
and your server with software used in a certain deployment infrastructure, such as VMware vCenter,
Microsoft Admin Center, or Microsoft System Center.
For additional information about using Lenovo XClarity Integrator to update firmware, see:
https://pubs.lenovo.com/lxci-overview/
Tech Tips
Lenovo continually updates the support website with the latest tips and techniques that you can use to solve
issues that your server might encounter. These Tech Tips (also called retain tips or service bulletins) provide
procedures to work around issues or solve problems related to the operation of your server.
Security advisories
Lenovo is committed to developing products and services that adhere to the highest security standards in
order to protect our customers and their data. When potential vulnerabilities are reported, it is the
responsibility of the Lenovo Product Security Incident Response Team (PSIRT) to investigate and provide
information to our customers so they may put mitigation plans in place as we work toward providing
solutions.
The server can be turned on (power LED on) in any of the following ways:
• You can press the power button.
• The server can respond to remote power-on requests sent to Lenovo XClarity Controller via Lenovo
XClarity Essentials OneCLI, IPMItool, or SSH CLI.
For example, run the following command on Lenovo XClarity Essentials OneCLI to power on your server:
OneCli.exe ospower turnon --bmc USERID:PASSW0RD@host
For more information about running the ospower command, see https://sysmgt.lenovofiles.com/help/topic/
toolsctr_cli_lenovo/onecli_r_ospower_command.html.
If the system UEFI power policy is set to “always on”, the system will be powered on automatically when an
AC source is plugged in.
For information about powering off the server, see “Power off the server” on page 17.
To place the server in a standby state (power status LED flashes once per second):
Note: The Lenovo XClarity Controller can place the server in a standby state as an automatic response to a
critical system failure.
• Start an orderly shutdown using the operating system (if supported by your operating system).
• Press the power button to start an orderly shutdown (if supported by your operating system).
• Press and hold the power button for more than 4 seconds to force a shutdown.
• Send remote power-off commands to Lenovo XClarity Controller via Lenovo XClarity Essentials OneCLI,
IPMItool, or SSH CLI.
Chapter 1. Introduction 17
When in a standby state, the server can respond to remote power-on requests sent to the Lenovo XClarity
Controller. For information about powering on the server, see “Power on the server” on page 17.
Front view
The front view of the server varies by model. Depending on the model, your server might look slightly
different from the illustrations in this topic.
Callout Callout
1 Drive status LED 2 Drive activity LED
Callout Callout
9 Pull-out information tab 10 Drive filler (1)
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Drive status LED 2 Drive activity LED
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Drive status LED 2 Drive activity LED
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Diagnostics panel 2 USB 3.2 Gen 1 (5Gbps) connector
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Rack latch (left) 2 VGA connector (optional)
3 External diagnostics connector 4 XClarity Controller USB connector and USB 3.2 Gen 1
(5Gbps) connector
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Diagnostics panel 2 USB 3.2 Gen 1 (5Gbps) connector
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Rack latch (left) 2 VGA connector (optional)
3 External diagnostics connector 4 XClarity Controller USB connector and USB 3.2 Gen 1
(5Gbps) connector
Note: For more information about each component, see “Front components overview” on page 25.
Callout Callout
1 Drive status LED 2 Drive activity LED
Note: For more information about each component, see “Front components overview” on page 25.
Server model with 16 EDSFF drives (with LCD diagnostics panel assembly)
Callout Callout
1 LCD diagnostics panel assembly 2 LCD diagnostics panel
Note: For more information about each component, see “Front components overview” on page 25.
Diagnostics panel
The diagnostics panel is integrated in front I/O assembly on some models. For information about the controls
and status LEDs on the diagnostics panel, see “Diagnostics panel” on page 26.
Drive LEDs
Each drive comes with an activity LED and status LED and the signals are controlled by the backplanes.
Different colors and speeds indicate different activities or status of the drive. The following illustrations and
tables describe the problems that are indicated by drive activity LED and drive status LED.
Blinking yellow (blinking slowly, about one The drive is being rebuilt.
flash per second)
Blinking yellow (blinking rapidly, about four The RAID adapter is locating the drive.
flashes per second)
2 Drive activity LED Solid green The drive is powered but not active.
The EMI integrity and cooling of the server are protected by having all drive bays occupied. Vacant drive
bays must be occupied by drive fillers.
Rack latches
If your server is installed in a rack, you can use the rack latches to help you slide the server out of the rack.
You also can use the rack latches and screws to secure the server in the rack so that the server cannot slide
out, especially in vibration-prone areas. For more information, refer to the Rack Installation Guide that comes
with your rail kit.
VGA connector
The VGA connectors on the front and rear of the server can be used to attach a high-performance monitor, a
direct-drive monitor, or other devices that use a VGA connector.
For details about using the Lenovo XClarity Mobile app, refer to http://sysmgt.lenovofiles.com/help/topic/
com.lenovo.lxca.doc/lxca_usemobileapp.html.
Diagnostics panel
The diagnostics panel provides controls, connectors, and LEDs.
Note: Diagnostics panel with an LCD display is available for some models. For details, see “LCD diagnostics
panel” on page 28 and “External LCD diagnostics handset” on page 33.
You can press the power button to power on the server when you finish setting up the server. You also can
hold the power button for several seconds to power off the server if you cannot shut down the server from
the operating system. The power status LED helps you to determine the current power status.
Slow blinking Green The server is off and is ready to be powered on (standby state).
(about one flash
per second)
Fast blinking Green The server is off, but the XClarity Controller is initializing, and the server is not
(about four ready to be powered on.
flashes per
second)
When an OCP 3.0 Ethernet adapter is installed, the network activity LED on the front I/O assembly helps you
identify the network connectivity and activity. If no OCP 3.0 Ethernet adapter is installed, this LED is off.
Use this system ID button and the blue system ID LED to visually locate the server. A system ID LED is also
located on the rear of the server. Each time you press the system ID button, the state of both the system ID
LEDs changes. The LEDs can be changed to on, blinking, or off. You can also use the Lenovo XClarity
If the XClarity Controller USB connector is set to have both the USB 2.0 function and XClarity Controller
management function, you can press the system ID button for three seconds to switch between the two
functions.
The system error LED helps you to determine if there are any system errors.
On Yellow An error has been detected on the server. Check the event log to determine the exact
Causes might include but are not limited to cause of the error.
the following errors: Alternatively, follow the light path
diagnostics to determine if additional LEDs
• The temperature of the server reached
are lit that will direct you to identify the
the non-critical temperature threshold.
cause of the error.
• The voltage of the server reached the
non-critical voltage threshold.
• A fan has been detected to be running at
low speed.
• A hot-swap fan has been removed.
• The power supply has a critical error.
• The power supply is not connected to
the power.
Location
1 The handle with which the panel can be pulled out from the server.
Notes:
Callout
• The panel can be pushed in or pulled out regardless of the system power status.
• When pulling it out, do it gently to avoid damage.
1 LCD display
The external LCD diagnostics handset displays various system information. Navigate through the options
with the scroll buttons.
Depending on the model, the options and entries on the LCD display might be different.
Depending on the model, the options and entries on the LCD display might be different.
1 System name
2 System status
4 Temperature
5 Power consumption
6 Checkpoint code
Active Alerts
Home screen:
Active error quantity
Note: The “Active Alerts” menu displays only the quantity 1 Active Alerts
of active errors. If no errors occur, the “Active Alerts”
menu will not be available during navigation.
Active Alerts: 1
Press ▼ to view alert details
Details screen:
• Error message ID (Type: Error/Warning/Information) FQXSPPU009N(Error)
• Occurrence time
04/07/2020 02:37:39 PM
• Possible sources of the error
CPU 1 Status:
Configuration Error
UEFI
UEFI (Inactive)
• Firmware level (status)
Build: D0E101P
• Build ID
Version: 1.00
• Version number
Date: 2019-12-26
• Release date
XCC Primary
XCC Primary (Active)
• Firmware level (status)
Build: DVI399T
• Build ID
Version: 4.07
• Version number
Date: 2020-04-07
• Release date
XCC Backup
XCC Backup (Active)
• Firmware level (status)
Build: D8BT05I
• Build ID
Version: 1.00
• Version number
Date: 2019-12-30
• Release date
• XCC hostname
XCC Network Information
• MAC address
XCC Hostname: XCC-xxxx-SN
• IPv4 Network Mask
MAC Address:
• IPv4 DNS
xx:xx:xx:xx:xx:xx
• IPv6 Link Local IP
IPv4 IP:
• Stateless IPv6 IP
xx.xx.xx.xx
• Static IPv6 IP
IPv4 Network Mask:
• Current IPv6 Gateway
x.x.x.x
• IPv6 DNS
IPv4 Default Gateway:
Note: Only the MAC address that is currently in use is
displayed (extension or shared). x.x.x.x
Ambient Temp: 24 C
Exhaust Temp: 30 C
• Ambient temperature PSU1: Vin= 213 w
• Exhaust temperature Inlet= 26 C
• PSU status FAN1 Front: 21000 RPM
• Spinning speed of fans by RPM FAN2 Front: 21000 RPM
FAN3 Front: 21000 RPM
FAN4 Front: 21000 RPM
Active Sessions
Actions
Note: The external LCD diagnostics handset is an optional part that needs to be purchased separately.
Note: When unplugging the external handset, see the following instructions:
Hold the clip and remove the cable from the connector.
The external LCD diagnostics handset displays various system information. Navigate through the options
with the scroll buttons.
Depending on the model, the options and entries on the LCD display might be different.
Depending on the model, the options and entries on the LCD display might be different.
1 System name
2 System status
4 Temperature
5 Power consumption
6 Checkpoint code
Active Alerts
Home screen:
Active error quantity
Note: The “Active Alerts” menu displays only the quantity 1 Active Alerts
of active errors. If no errors occur, the “Active Alerts”
menu will not be available during navigation.
Active Alerts: 1
Press ▼ to view alert details
Details screen:
• Error message ID (Type: Error/Warning/Information) FQXSPPU009N(Error)
• Occurrence time
04/07/2020 02:37:39 PM
• Possible sources of the error
CPU 1 Status:
Configuration Error
UEFI
UEFI (Inactive)
• Firmware level (status)
Build: D0E101P
• Build ID
Version: 1.00
• Version number
Date: 2019-12-26
• Release date
XCC Primary
XCC Primary (Active)
• Firmware level (status)
Build: DVI399T
• Build ID
Version: 4.07
• Version number
Date: 2020-04-07
• Release date
XCC Backup
XCC Backup (Active)
• Firmware level (status)
Build: D8BT05I
• Build ID
Version: 1.00
• Version number
Date: 2019-12-30
• Release date
• XCC hostname
XCC Network Information
• MAC address
XCC Hostname: XCC-xxxx-SN
• IPv4 Network Mask
MAC Address:
• IPv4 DNS
xx:xx:xx:xx:xx:xx
• IPv6 Link Local IP
IPv4 IP:
• Stateless IPv6 IP
xx.xx.xx.xx
• Static IPv6 IP
IPv4 Network Mask:
• Current IPv6 Gateway
x.x.x.x
• IPv6 DNS
IPv4 Default Gateway:
Note: Only the MAC address that is currently in use is
displayed (extension or shared). x.x.x.x
Ambient Temp: 24 C
Exhaust Temp: 30 C
• Ambient temperature PSU1: Vin= 213 w
• Exhaust temperature Inlet= 26 C
• PSU status FAN1 Front: 21000 RPM
• Spinning speed of fans by RPM FAN2 Front: 21000 RPM
FAN3 Front: 21000 RPM
FAN4 Front: 21000 RPM
Active Sessions
Actions
Rear view
The rear view of the server varies by model. Depending on the model, your server might look slightly different
from the illustrations in this topic.
Callout Callout
1 PCIe slot 1 on riser 1 assembly 2 PCIe slot 2 on riser 1 assembly
9 XClarity Controller network connector 10 Ethernet connectors on OCP 3.0 Ethernet adapter
(optional)
Note: For more information about each component, see “Rear components overview” on page 41.
Callout Callout
1 PCIe slot 1 on riser 1 assembly 2 PCIe slot 2 on riser 1 assembly
Note: For more information about each component, see “Rear components overview” on page 41.
Server model with two 2.5-inch hot-swap rear drive bays and one PCIe slot
The following illustration shows the rear view of the server model with two hot-swap drive bays and one PCIe
slot. Depending on the model, your server might look slightly different from the illustration below.
Callout Callout
1 PCIe slot 1 on riser 1 assembly 2 Rear 2.5-inch drive bays (2)
Note: For more information about each component, see “Rear components overview” on page 41.
Server model with two 7mm hot-swap rear drive bays and two PCIe slots
The following illustration shows the rear view of the server model with two 7mm hot-swap rear drive bays and
two PCIe slots. Depending on the model, your server might look slightly different from the illustration below.
Callout Callout
1 PCIe slot 1 on riser 1 assembly 2 PCIe slot 2 on riser 1 assembly
9 XClarity Controller network connector 10 Ethernet connectors on OCP 3.0 Ethernet adapter
(optional, two or four connectors may be available)
Note: For more information about each component, see “Rear components overview” on page 41.
Drive LEDs
Each hot-swap drive comes with an activity LED and status LED and the signals are controlled by the
backplanes. Different colors and speeds indicate different activities or status of the drive. The following
illustration shows the LEDs on a Hard disk drive or solid–state drive.
1 Drive status LED (right) Solid yellow The drive has an error.
Blinking yellow (blinking slowly, about one The drive is being rebuilt.
flash per second)
Blinking yellow (blinking rapidly, about four The RAID adapter is locating the drive.
flashes per second)
2 Drive activity LED (left) Solid green The drive is powered but not active.
Ethernet connectors
Figure 7. OCP 3.0 Ethernet adapter (two connectors, seen Figure 8. OCP 3.0 Ethernet adapter (four connectors, seen
from the rear) from the rear)
• The OCP 3.0 Ethernet adapter provides two or four extra Ethernet connectors for network connections.
• By default, Ethernet connector 1 (the first port starting from the left in the rear server view) on the OCP 3.0
Ethernet adapter can also function as a management connector using the shared management capacity. If
the shared management connector fails, traffic can automatically switch over to another connector on the
adapter.
The EMI integrity and cooling of the server are protected by having all drive bays occupied. Vacant drive
bays must be occupied by drive fillers.
NMI button
Press this button to force a nonmaskable interrupt (NMI) to the processor. By this way, you can make the
operating system halt (such as Windows Blue Screen of Death) and take a memory dump. You might have to
use a pen or the end of a straightened paper clip to press the button.
On each power supply, there are three status LEDs near the power cord connector. For information about the
LEDs, see “Rear view LEDs” on page 43.
VGA connector
The VGA connectors on the front and rear of the server can be used to attach a high-performance monitor, a
direct-drive monitor, or other devices that use a VGA connector.
7 System ID LED
LED Description
3 Power input
• Green: The power supply is connected to the ac power source.
LED
• Off: The power supply is disconnected from the ac power source or a power problem occurs.
4 Power output
• Green: The server is on and the power supply is working normally.
LED
• Blinking green: The power supply is in the zero-output mode (standby). When the server
power load is low, one of the installed power supplies enters into the standby state while the
other one delivers the entire load. When the power load increases, the standby power supply
will switch to active state to provide sufficient power to the system.
To disable zero-output mode, log in to the Lenovo XClarity Controller web interface, choose
Server Configuration ➙ Power Policy, disable Zero Output Mode, and then click Apply. If
you disable the zero-out mode, both power supplies will be in the active state.
• Off: The server is powered off, or the power supply is not working properly. If the server is
powered on but the LED is off, replace the power supply.
5 Power supply
• Yellow: The power supply has failed. To resolve the issue, replace the power supply.
error LED
• Off: The power supply is working normally.
7 System ID LED
The blue system ID LED helps you to visually locate the server. A system ID LED is also located on the front
of the server. Each time you press the system ID button, the state of both the system ID LEDs changes. The
LEDs can be changed to on, blinking, or off. You can also use the Lenovo XClarity Controller or a remote
management program to change the state of the system ID LEDs to assist in visually locating the server
among other servers.
Callout Callout
1 NMI Button 2 SATA Connector 0
31 Riser 2 slot
Callout Callout
1 System error LED 2 System ID LED
When this yellow LED is lit, one or more LEDs elsewhere in the server might also be lit to direct you to the
source of the error. For more information, see “Rear view LEDs” on page 43.
The blue system ID LED helps you to visually locate the server. A system ID LED is also located on the front
of the server. Each time you press the system ID button, the state of both the system ID LEDs changes. The
LEDs can be changed to on, blinking, or off.
The BMC heart beat LED helps you identify the BMC status.
When a memory module error LED is lit, it indicates that the corresponding memory module has failed.
Switch block
The following illustrates the location and functions of the switch block on the system board.
Important:
• Before you move any switch, turn off the server; then, disconnect all power cords and external cables. Do
not open your server or attempt any repair before reading and understanding the following information:
– https://pubs.lenovo.com/safety_documentation/
– “Handling static-sensitive devices” on page 88
• If there is a clear protective sticker on the top of the switch block, you must remove and discard it to
access the switches.
• Any system-board switch or jumper block that is not shown in the illustrations in this document is
reserved.
3 SW8-3 Force XCC reset switch • OFF: The switch is in default setting.
• ON: Reset the Lenovo XClarity Controller.
5 SW8-5 XCC SPI0 half ROM • OFF: The switch is in default setting.
switch • ON: Force XClarity Controller to boot from a backup image.
For more information about ordering the parts shown in Figure 13 “Server components” on page 49:
https://datacentersupport.lenovo.com/products/servers/thinksystem/sr630v2/7z70/parts
It is highly recommended that you check the power summary data for your server using Lenovo Capacity
Planner before purchasing any new parts.
Note: Depending on the model, your server might look slightly different from the illustration.
The parts listed in the following table are identified as one of the following:
Note: Unless otherwise specified in other agreements or contract terms, parts beyond their warranty terms
and/or parts that have reached their maximum usage limitations do not qualify for warranty service.
For more information about ordering the parts shown in Figure 13 “Server components” on page 49:
https://datacentersupport.lenovo.com/products/servers/thinksystem/sr630v2/7z70/parts
1 Top cover √
2 Standard air baffle √
3 Riser assembly (LP) √
4 Riser assembly (LP+LP) √
5 Riser assembly (LP+FH) √
6 Rear wall bracket √
7 PCIe adapter √
8 System board √
RAID flash power module holder (on
9
chassis) √
Consumable
and
Index Description Tier 1 CRU Tier 2 CRU FRU
Structural
parts
Consumable
and
Index Description Tier 1 CRU Tier 2 CRU FRU
Structural
parts
Power cords
Several power cords are available, depending on the country and region where the server is installed.
To view the power cords that are available for the server:
1. Go to: http://dcsc.lenovo.com/#/
2. Click Preconfigured Model or Configure to order.
3. Enter the machine type and model for your server to display the configurator page.
4. Click Power ➙ Power Cables to see all line cords.
Notes:
• For your safety, a power cord with a grounded attachment plug is provided to use with this product. To
avoid electrical shock, always use the power cord and plug with a properly grounded outlet.
• Power cords for this product that are used in the United States and Canada are listed by Underwriter's
Laboratories (UL) and certified by the Canadian Standards Association (CSA).
• For units intended to be operated at 115 volts: Use a UL-listed and CSA-certified cord set consisting of a
minimum of 18 AWG, Type SVT or SJT, three-conductor cord, a maximum of 15 feet in length and a
parallel blade, grounding-type attachment plug rated 15 amperes, 125 volts.
• For units intended to be operated at 230 volts (U.S. use): Use a UL-listed and CSA-certified cord set
consisting of a minimum of 18 AWG, Type SVT or SJT, three-conductor cord, a maximum of 15 feet in
length and a tandem blade, grounding-type attachment plug rated 15 amperes, 250 volts.
• For units intended to be operated at 230 volts (outside the U.S.): Use a cord set with a grounding-type
attachment plug. The cord set should have the appropriate safety approvals for the country in which the
equipment will be installed.
• Power cords for a specific country or region are usually available only in that country or region.
Some of the components in the server have internal cables and cable connectors. For details, see the
following cable routing sections:
• “CFF HBA/RAID adapter” on page 54
• “Front I/O” on page 57
• “Intrusion switch” on page 58
• “RAID flash power modules” on page 59
• “M.2 drive backplane” on page 61
• “16-EDSFF drive backplane” on page 62
• “7mm drive backplane” on page 63
• “2.5-inch/3.5-inch drive backplane (power)” on page 64
• “2.5-inch/3.5-inch drive backplane (signal)” on page 65
Read the following guidelines carefully before you connect any cables:
• Power off the server before you connect or disconnect any internal cables.
• See the documentation that comes with any external devices for additional cabling instructions. It might
be easier for you to route cables before you connect the devices to the server.
• Cable identifiers of some cables are printed on the cables that come with the server and optional devices.
Use these identifiers to connect the cables to the correct connectors.
• Ensure that the relevant cables pass through the cable clips.
Note: Disengage all latches, release tabs, or locks on cable connectors when you disconnect cables from
the system board. Failing to release them before removing the cables will damage the cable sockets on the
system board, which are fragile. Any damage to the cable sockets might require replacing the system board.
From To
1 Power connector on the CFF HBA/RAID adapter Internal RAID connector on the system board
2 Input connector on the CFF HBA/RAID adapter PCIe 1 (for server model with the 8 x 2.5-inch SAS/SATA
backplane with both one and two processors installed)
From To
1 Power connector on the CFF HBA/RAID adapter Internal RAID connector on the system board
2 Input connector on the CFF HBA/RAID adapter PCIe 1 (for server model with the 8 x 2.5-inch SAS/SATA
backplane with both one and two processors installed)
From To
1 VGA cable VGA connector on the system board
2 LCD external diagnostics handset cable LCD EXT connector on the system board
From To
1 Intrusion switch cable on the fan cage Intrusion switch connector on the system board
An extension cable is provided for each RAID flash power module for connection. Connect the super
capacitor cable to the super capacitor connector on the corresponding RAID adapter as shown.
From To
RAID flash power module Super capacitor connector on the RAID adapter
From To
1 Power cable M.2 power connector on the system board
From To
1 EDSFF 0/1 PCIe 6
1 EDSFF 2/3 PCIe 5
1 EDSFF 4/5 PCIe 4
1 EDSFF 6/7 PCIe 3
2 Power connector on the drive backplane Front backplane power connector on the system board
From To
1 7mm signal cable 7mm/M.2 signal connector on the system board
2 Power cable Power connectors on the rise card on the riser 1 assembly
From To
1 Power connector on the front drive backplane Front backplane power connector on the system board
2 Power connector on the rear drive backplane Power connectors on the rise card on the riser 1
assembly
To connect cables for a 7mm drive backplane, refer to “7mm drive backplane” on page 63.
To connect power cables for a backplane for standard 2.5-inch or 3.5-inch drives, refer to “2.5-inch/3.5-inch
drive backplane (power)” on page 64.
To connect signal cables for a backplane for standard 4 x 3.5-inch front drives, refer to the following cable
routing scenarios depending on your server configuration:
• “Cable routing for onboard configuration” on page 66
• “Cable routing with an SFF HBA/RAID adapter” on page 67
• “Cable routing with an SFF RAID adapter (tri-mode)” on page 68
Table 22. Mapping between backplane connectors and system board connectors for onboard configuration
Backplanes From To
SAS SATA 2
Rear BP (if any)
NVMe 0, NVMe 1 PCIe 6
Note: *NVMe 0-1 and NVMe 2-3 connectors are available only when the 4 x 3.5'' AnyBay front backplane is
used.
The following figure illustrates the cable routing for the onboard configuration of 4 x 3.5-inch front AnyBay
drive bays with a rear 2 x 2.5-inch NVMe drive cage. Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔
3 , ... n ↔ n
Figure 23. Cable routing for onboard configuration of 4 x 3.5-inch front AnyBay drive bays with a rear 2 x 2.5-inch NVMe
drive cage
Table 23. Mapping between backplane connectors and system board/adapter connectors when an SFF HBA/RAID
adapter is installed
Backplanes From To
Notes:
• *NVMe 0-1 and NVMe 2-3 connectors are available only when the 4 x 3.5'' AnyBay front backplane is
used.
• Gen 3 and Gen 4 SFF HBA/RAID adapters are slightly different in their connectors, but the cable routing
method is similar.
The following figure illustrates the cable routing for the configuration of 4 x 3.5-inch front AnyBay drive bays
with an 8i SFF RAID adapter (Gen 4) and a rear 2 x 2.5-inch SAS/SATA drive cage. Connections between
connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Figure 24. Cable routing for 4 x 3.5-inch front AnyBay drive bays with an 8i SFF RAID adapter (Gen 4) and a rear 2 x 2.5-
inch SAS/SATA drive cage
Table 24. Mapping between backplane connectors and adapter connectors when a Gen 4 8i SFF RAID adapter (tri-mode)
is installed
Backplane From To
Note: If a tri-mode RAID adapter is used, only U.3 front drives are supported, and U.2 front drives are not
supported.
The following figure illustrates the cable routing for the configuration of 4 x 3.5-inch front U.3 drive bays with
a 16i SFF RAID adapter (tri-mode). Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Figure 25. Cable routing for 4 x 3.5-inch front U.3 drive bays with a Gen 4 8i SFF RAID adapter (tri-mode)
To connect cables for a 7mm drive backplane, refer to “7mm drive backplane” on page 63.
To connect power cables for a backplane for standard 2.5-inch or 3.5-inch drives, refer to “2.5-inch/3.5-inch
drive backplane (power)” on page 64.
To connect signal cables for a backplane for standard 4 x 2.5-inch front drives, refer to the following cable
routing scenarios depending on your server configuration:
• “Cable routing for onboard configuration” on page 70
• “Cable routing with an SFF HBA/RAID adapter” on page 71
Table 25. Mapping between backplane connectors and system board connectors for onboard configuration
Backplanes From To
The following figure illustrates the cable routing for the onboard configuration of 4 x 2.5-inch front SAS/SATA
drive bays. Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Figure 26. Cable routing for onboard configuration of 4 x 2.5-inch front SAS/SATA drive bays
Table 26. Mapping between backplane connectors and adapter connectors when an SFF HBA/RAID adapter is installed
Backplanes From To
Note: Gen 3 and Gen 4 SFF HBA/RAID adapters are slightly different in their connectors, but the cable
routing method is similar.
The following figure illustrates the cable routing for the configuration of 4 x 2.5-inch front SAS/SATA drive
bays with an 8i SFF RAID adapter (Gen 4). Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔
n
Figure 27. Cable routing for 4 x 2.5-inch front SAS/SATA drive bays with an 8i SFF RAID adapter (Gen 4)
To connect cables for a 7mm drive backplane, refer to “7mm drive backplane” on page 63.
To connect power cables for a backplane for standard 2.5-inch or 3.5-inch drives, refer to “2.5-inch/3.5-inch
drive backplane (power)” on page 64.
To connect signal cables for a backplane for standard 8 x 2.5-inch front drives, refer to the following cable
routing scenarios depending on your server configuration:
• “Cable routing for onboard configuration” on page 73
• “Cable routing with an SFF HBA/RAID adapter” on page 74
• “Cable routing with an SFF RAID adapter (tri-mode)” on page 75
• “Cable routing with a re-timer card for one processor” on page 76
• “Cable routing with a CFF HBA/RAID adapter” on page 77
Table 27. Mapping between backplane connectors and system board connectors for onboard configuration
Backplanes From To
SAS 0 SATA 0
Front BP (SAS)
SAS 1 SATA 1
Rear BP (if any) SAS SATA 2
The following figure illustrates the cable routing for the onboard configuration of 8 x 2.5-inch front SAS/SATA
drive bays with a rear 2 x 2.5-inch SAS/SATA drive cage. Connections between connectors: 1 ↔ 1 , 2 ↔ 2 ,
3 ↔ 3 , ... n ↔ n .
Figure 28. Cable routing for onboard configuration of 8 x 2.5-inch front SAS/SATA drive bays with a rear 2 x 2.5-inch
SAS/SATA drive cage
Table 28. Mapping between backplane connectors and system board/adapter connectors when an SFF HBA/RAID
adapter is installed
Backplanes From To
Note: Gen 3 and Gen 4 SFF HBA/RAID adapters are slightly different in their connectors, but the cable
routing method is similar.
The following figure illustrates the cable routing for the configuration of 8 x 2.5-inch front SAS/SATA drive
bays with a 8i SFF RAID adapter (Gen 4) and a rear 2 x 2.5-inch SAS/SATA drive cage. Connections between
connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n .
Figure 29. Cable routing for 8 x 2.5-inch front SAS/SATA drive bays with an 8i SFF RAID adapter (Gen 4) and a rear 2 x
2.5-inch SAS/SATA drive cage
Table 29. Mapping between backplane connectors and adapter connectors when a Gen 4 8i SFF RAID adapter (tri-mode)
is installed
Backplane From To
Notes:
• For the server model with eight front 2.5-inch drives, the 10 x 2.5'' AnyBay backplane is used to support
the tri-mode configuration.
• If a tri-mode RAID adapter is used, only U.3 front drives are supported, and U.2 front drives are not
supported.
The following figure illustrates the cable routing for the configuration of 8 x 2.5-inch front U.3 drive bays with
a Gen 4 8i SFF RAID adapter (tri-mode). Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n .
Figure 30. Cable routing for 8 x 2.5-inch front U.3 drive bays with a Gen 4 8i SFF RAID adapter (tri-mode)
Table 30. Mapping between backplane connectors and a re-timer card for one processor
Backplane From To
SAS 0 SATA 0
Front BP (SAS)
SAS 1 SATA 1
NVMe 0–1, NVMe 2–3 PCIe 1, PCIe 2
Front BP (NVMe)
NVMe 4–5, NVMe 6–7 C0, C1
Notes:
• For the server model with eight front 2.5-inch NVMe drives, the 10 x 2.5'' AnyBay backplane is used.
• If you take the front view of the chassis, when the re-timer card is installed in PCIe slot 1, the cable is
routed on the right side as figure 4 illustrates; when PCIe slot 1 is occupied, install the re-timer card to
PCIe slot 2, note that the cable should be routed on the left side.
The following figure illustrates the cable routing for the configuration of 8 x 2.5-inch front NVMe drive bays
with a re-timer card. Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n .
Figure 31. Cable routing for 8 x 2.5-inch front drive bays with a re-timer card for one processor
Table 31. Mapping between backplane connectors and adapter connectors when a 16i CFF HBA/RAID adapter is
installed
Backplanes From To
Note: For power and input cable connection of the CFF HBA/RAID adapter, refer to “CFF HBA/RAID
adapter” on page 54.
The following figure illustrates the cable routing for the configuration of 8 x 2.5-inch front SAS/SATA drive
bays with a 16i CFF RAID adapter and a rear 2 x 2.5-inch SAS/SATA drive cage. Connections between
connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n .
Figure 32. Cable routing for 8 x 2.5-inch front SAS/SATA drive bays with a 16i CFF RAID adapter and a rear 2 x 2.5-inch
SAS/SATA drive cage
To connect cables for a 7mm drive backplane, refer to “7mm drive backplane” on page 63.
To connect power cables for a backplane for standard 2.5-inch or 3.5-inch drives, refer to “2.5-inch/3.5-inch
drive backplane (power)” on page 64.
To connect signal cables for a backplane for standard 10 x 2.5-inch front drives, refer to the following cable
routing scenarios depending on your server configuration:
• “Cable routing for onboard configuration” on page 79
• “Cable routing with an SFF HBA/RAID adapter” on page 80
• “Cable routing with an SFF RAID adapter (tri-mode)” on page 81
• “Cable routing with a CFF HBA/RAID adapter” on page 83
Table 32. Mapping between backplane connectors and system board connectors for onboard configuration
Backplanes From To
Notes:
• *NVMe 4-5, NVMe 6-7, and NVMe 8-9 connectors are available only when the 10 x 2.5'' AnyBay front
backplane is used.
• *The SAS 2 connector only needs to be connected in the front drive scenario of 10 x 2.5'' AnyBay or 6 x
2.5'' SAS/SATA + 4 x 2.5'' AnyBay.
• In case of front 10 x 2.5'' NVMe drive bay scenario, SAS connectors on the front backplane do not need to
be connected.
The following figure illustrates the cable routing for the onboard configuration of 10 x 2.5-inch front drive
bays (6 x SAS/SATA + 4 x NVMe) with a rear 2 x 2.5-inch SAS/SATA drive cage. Connections between
connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Table 33. Mapping between backplane connectors and system board/adapter connectors when an SFF HBA/RAID
adapter is installed
Backplanes From To
Notes:
• *NVMe 4-5, NVMe 6-7, and NVMe 8-9 connectors are available only when the 10 x 2.5'' AnyBay front
backplane is used.
• *The SAS 2 connector only needs to be connected in the front drive scenario of 10 x 2.5'' AnyBay or 6 x
2.5'' SAS/SATA + 4 x 2.5'' AnyBay.
• Gen 3 and Gen 4 SFF HBA/RAID adapters are slightly different in their connectors, but the cable routing
method is similar.
Figure 34. Cable routing for 10 x 2.5-inch front AnyBay drive bays with a 16i SFF RAID adapter (Gen 4) and a rear 2 x 2.5-
inch SAS/SATA drive cage
Table 34. Mapping between backplane connectors and adapter connectors when a Gen 4 16i SFF RAID adapter (tri-
mode) is installed
Backplane From To
Note: If a tri-mode RAID adapter is used, only U.3 front drives are supported, and U.2 front drives are not
supported.
The following figure illustrates the cable routing for the configuration of 10 x 2.5-inch front U.3 drive bays with
a 16i SFF RAID adapter (tri-mode). Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Table 35. Mapping between backplane connectors and system board/adapter connectors when a 16i CFF HBA/RAID
adapter is installed
Backplanes From To
Note: For power and input cable connection of the CFF HBA/RAID adapter, refer to “CFF HBA/RAID
adapter” on page 54.
The following figure illustrates the cable routing for the configuration of 10 x 2.5-inch front drive bays (6 x
SAS/SATA + 4 x AnyBay) with a 16i CFF RAID adapter and a rear 2 x 2.5-inch SAS/SATA drive cage.
Connections between connectors: 1 ↔ 1 , 2 ↔ 2 , 3 ↔ 3 , ... n ↔ n
Figure 36. Cable routing for 10 x 2.5-inch front drive bays (6 x SAS/SATA + 4 x AnyBay) with a 16i CFF RAID adapter and
a rear 2 x 2.5-inch SAS/SATA drive cage
https://datacentersupport.lenovo.com/products/servers/thinksystem/sr630v2/7z70/parts
Note: If you replace a part, such as an adapter, that contains firmware, you might also need to update the
firmware for that part. For more information about updating firmware, see “Firmware updates” on page 12.
Installation guidelines
Before installing components in your server, read the installation guidelines.
Attention: Prevent exposure to static electricity, which might lead to system halt and loss of data, by
keeping static-sensitive components in their static-protective packages until installation, and handling these
devices with an electrostatic-discharge wrist strap or other grounding system.
• Read the safety information and guidelines to ensure your safety at work:
https://pubs.lenovo.com/safety_documentation/
• When you install a new server, download and apply the latest firmware. This will help ensure that any
known issues are addressed, and that your server is ready to work with optimal performance. Go to
ThinkSystem SR630 V2 Drivers and Software to download firmware updates for your server.
Important: Some cluster solutions require specific code levels or coordinated code updates. If the
component is part of a cluster solution, verify the latest Best Recipe code level menu for cluster supported
firmware and driver before you update the code.
• It is good practice to make sure that the server is working correctly before you install an optional
component.
• Keep the working area clean, and place removed components on a flat and smooth surface that does not
shake or tilt.
• Do not attempt to lift an object that might be too heavy for you. If you have to lift a heavy object, read the
following precautions carefully:
– Make sure that you can stand steadily without slipping.
– Distribute the weight of the object equally between your feet.
– Use a slow lifting force. Never move suddenly or twist when you lift a heavy object.
– To avoid straining the muscles in your back, lift by standing or by pushing up with your leg muscles.
• Back up all important data before you make changes related to the disk drives.
• Have a small flat-blade screwdriver, a small Phillips screwdriver, and a T8 Torx screwdriver available.
• To view the error LEDs on the system board and internal components, leave the power on.
• You do not have to turn off the server to remove or install hot-swap power supplies, hot-swap fans, or hot-
plug USB devices. However, you must turn off the server before you perform any steps that involve
removing or installing adapter cables, and you must disconnect the power source from the server before
you perform any steps that involve removing or installing a riser card, memory, or processor.
Note: See the system specific instructions for removing or installing a hot-swap drive for any additional
procedures that you might need to perform before you remove or install the drive.
• After finishing working on the server, make sure you reinstall all safety shields, guards, labels, and ground
wires.
Notes:
• The product is not suitable for use at visual display workplaces according to §2 of the Workplace
Regulations.
• The set-up of the server is made in the server room only.
CAUTION:
This equipment must be installed or serviced by trained personnel, as defined by the NEC, IEC 62368-
1 & IEC 60950-1, the standard for Safety of Electronic Equipment within the Field of Audio/Video,
Information Technology and Communication Technology. Lenovo assumes you are qualified in the
servicing of equipment and trained in recognizing hazards energy levels in products. Access to the
equipment is by the use of a tool, lock and key, or other means of security, and is controlled by the
authority responsible for the location.
Important: Electrical grounding of the server is required for operator safety and correct system function.
Proper grounding of the electrical outlet can be verified by a certified electrician.
Use the following checklist to verify that there are no potentially unsafe conditions:
1. Make sure that the power is off and the power cord is disconnected.
2. Check the power cord.
• Make sure that the third-wire ground connector is in good condition. Use a meter to measure third-
wire ground continuity for 0.1 ohm or less between the external ground pin and the frame ground.
• Make sure that the power cord is the correct type.
To view the power cords that are available for the server:
a. Go to: http://dcsc.lenovo.com/#/
b. Click Preconfigured Model or Configure to order.
c. Enter the machine type and model for your server to display the configurator page.
d. Click Power ➙ Power Cables to see all line cords.
Attention: The server might stop and data loss might occur when internal server components are exposed
to static electricity. To avoid this potential problem, always use an electrostatic-discharge wrist strap or other
grounding systems when working inside the server with the power on.
• Avoid loose-fitting clothing, particularly around your forearms. Button or roll up long sleeves before
working inside the server.
• Prevent your necktie, scarf, badge rope, or hair from dangling into the server.
• Remove jewelry, such as bracelets, necklaces, rings, cuff links, and wrist watches.
• Remove items from your shirt pocket, such as pens and pencils, in case they fall into the server as you
lean over it.
• Avoid dropping any metallic objects, such as paper clips, hairpins, and screws, into the server.
Attention: Prevent exposure to static electricity, which might lead to system halt and loss of data, by
keeping static-sensitive components in their static-protective packages until installation, and handling these
devices with an electrostatic-discharge wrist strap or other grounding system.
Notes:
• The operating speed and total memory capacity depend on the processor model and UEFI settings.
• All Icelake Platinum and Gold CPUs support PMEM. For Icelake Silver CPUs, only processor 4314
supports PMEM.
• When 256 GB 3DS RDIMM/512 GB PMEM is installed, the ambient temperature must be limited to 30°C
or lower.
• Mixing 128 GB and 256 GB 3DS RDIMMs is not supported.
The following illustration helps you to locate the memory module slots on the system board.
Note: It is recommended to install memory modules with the same rank in each channel.
Channel F0 F1 E0 E1 H0 H1 G0 G1 C1 C0 D1 D0 A1 A0 B1 B0
Slot number 16 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1
32 31 30 29 28 27 26 25 24 23 22 21 20 19 18 17
Attention:
Independent mode
In independent memory mode, memory channels can be populated with DIMMs in any order and you can
populate all channels for each processor in any order with no matching requirements. Independent memory
mode provides the highest level of memory performance, but lacks failover protection. The DIMM installation
order for independent memory mode varies based on the number of processors and memory modules
installed in the server.
Follow the rules below when installing memory modules in independent mode:
• All memory modules to be installed must be of the same type. x4 and x8 DIMMs can be mixed in the same
channel.
• Memory modules from different vendors are supported.
• There must be at least one DDR4 DIMM per socket.
• In each memory channel, populate slot 0 first.
• If a memory channel has two DIMMs, populate the DIMM with a higher number of ranks in slot 0; if the two
DIMMs have the same number of ranks, populate the DIMM with a higher capacity in slot 0.
• A maximum of 8 logical ranks (ranks seen by the host) per channel is allowed.
• A maximum of two different DIMM capacities are supported per system.
– For channels A, C, E, and G, populated DIMMs must have the same total capacity for each channel.
– For channels B, D, F, and H, populated DIMMs must have the same total capacity for each channel,
which can be different from that of the other set (channels A, C, E, and G).
• If there are more than two DIMMs, populate them in a right-and-left symmetrical manner across a CPU
socket.
Table 37. Independent mode with one processor (DIMMs with same capacity)
Notes:
1. DIMM configurations that support the Sub NUMA Clustering (SNC) feature, which can be enabled via
UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the table
above.
2. DIMM configurations that support Software Guard Extensions (SGX). See “Enable Software Guard
Extensions (SGX)” in Setup Guide to enable this feature.
The following table shows the sequence of populating memory modules (with different capacities) for
independent mode when only one processor is installed.
Table 38. Independent mode with one processor (DIMMs with different capacities)
Notes:
1. DIMM configurations that support the Sub NUMA Clustering (SNC) feature, which can be enabled via
UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the table
above.
2. DIMM configurations that support Software Guard Extensions (SGX). See “Enable Software Guard
Extensions (SGX)” in Setup Guide to enable this feature.
Table 39. Independent mode with two processors (DIMMs with same capacity)
Notes:
1. DIMM configurations that support the Sub NUMA Clustering (SNC) feature, which can be enabled via
UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the table
above.
2. DIMM configurations that support Software Guard Extensions (SGX). See “Enable Software Guard
Extensions (SGX)” in Setup Guide to enable this feature.
The following table shows the sequence of populating memory modules (with the different capacities) for
independent mode when two processors are installed.
Table 40. Independent mode with two processors (DIMMs with different capacities)
Notes:
1. DIMM configurations that support the Sub NUMA Clustering (SNC) feature, which can be enabled via
UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the table
above.
2. DIMM configurations that support Software Guard Extensions (SGX). See “Enable Software Guard
Extensions (SGX)” in Setup Guide to enable this feature.
Mirroring mode
Memory-mirroring mode provides full memory redundancy while reducing the total system memory capacity
in half. Memory channels are grouped in pairs with each channel receiving the same data. If a failure occurs,
the memory controller switches from the DIMMs on the primary channel to the DIMMs on the backup
channel. The DIMM installation order for memory mirroring varies based on the number of processors and
DIMMs installed in the server.
In mirroring mode, each memory module in a pair must be identical in size and architecture. The channels are
grouped in pairs with each channel receiving the same data. One channel is used as a backup of the other,
which provides redundancy.
Follow the rules below when installing memory modules in mirroring mode:
• All memory modules to be installed must be of the same type with the same capacity, frequency, voltage,
and ranks.
• Mirroring can be configured across channels, and the total DDR4 memory size of the primary and
secondary channels must be the same.
• Partial Memory Mirroring is a sub-function of memory mirroring. It requires to follow the memory
population for memory mirroring.
The following table shows the memory module population sequence for mirroring mode when only one
processor (CPU 1) is installed.
Note: DIMM configurations listed in the table support the Sub NUMA Clustering (SNC) feature, which can be
enabled via UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the
table above.
Table 42. Mirroring mode with two processors (CPU 1 and CPU 2)
Note: DIMM configurations listed in the table support the Sub NUMA Clustering (SNC) feature, which can be
enabled via UEFI. SNC is not supported if DIMM population does not follow the sequence indicated by the
table above.
When PMEMs and DRAM DIMMs are mixed in the system, the following modes are supported:
• “App Direct Mode” on page 99
• “Memory Mode” on page 101
See the following topics to learn how to set up and configure PMEMs.
• “PMEM rules” on page 94
• “Setting up the system for PMEM for the first time” on page 94
• “PMEM Management options” on page 95
• “Adding or replacing PMEMs in App Direct Mode” on page 99
PMEM rules
Make sure to meet the following requirements when applying PMEMs in the system.
• All the PMEMs that are installed must be of the same part number.
• All the DRAM DIMMs that are installed must be of the same type, rank, and capacity with minimum
capacity of 16 GB. It is recommended to use Lenovo DRAM DIMMs with the same part number.
Note: If the text-based interface of Setup Utility opens instead of LXPM, go to System Settings ➙ <F1>
Start Control and select Tool Suite. Then, reboot the system, and as soon as the logo screen appears,
press the key specified in the on-screen instructions to open LXPM. (For more information, see the
“Startup” section in the LXPM documentation compatible with your server at https://pubs.lenovo.com/
lxpm-overview/.)
• Setup Utility
To enter Setup Utility:
1. Power on the system and press the key specified in the on-screen instructions to open LXPM.
(For more information, see the “Startup” section in the LXPM documentation compatible with your
server at https://pubs.lenovo.com/lxpm-overview/.)
2. Go to UEFI Settings ➙ System Settings, click on the pull-down menu on the upper right corner of
the screen, and select Text Setup.
3. Reboot the system, and as soon as the logo screen appears, press the key specified in the on-screen
instructions.
Go to System Configuration and Boot Management ➙ System Settings ➙ Intel Optane PMEMs to
configure and manage PMEMs.
• Lenovo XClarity Essentials OneCLI
Some management options are available in commands that are executed in the path of Lenovo XClarity
Essentials OneCLI in the operating system. See https://pubs.lenovo.com/lxce-onecli/download_use_onecli
to learn how to download and use Lenovo XClarity Essentials OneCLI.
Notes:
– XCC_Account stands for XCC user ID.
– XCC_Password stands for XCC user password.
– XCC_IP stands for XCC IP address.
• Goals
– Memory Mode [%]
Select this option to define the percentage of PMEM capacity that is invested in system memory, and
hence decide the PMEM mode:
– 0%: App Direct Mode
– 100%: Memory Mode
Go to Goals ➙ Memory Mode [%], input the memory percentage, and reboot the system.
Notes:
– Before changing from one mode to another:
1. Back up all the data and delete all the created namespaces. Go to Namespaces ➙ View/
Modify/Delete Namespaces to delete the created namespaces.
2. Perform secure erase on all the installed PMEMs. Go to Security ➙ Press to Secure Erase to
perform secure erase.
– Make sure the capacity of installed PMEM and DRAM DIMMs meets system requirements for the
new mode (see “PMEM rules” on page 94).
– After the system is rebooted and the input goal value is applied, the displayed value in System
Configuration and Boot Management ➙ Intel Optane PMEMs ➙ Goals will go back to the
following default selectable options:
• Scope: [Platform]
• Memory Mode [%]: 0
• Persistent Memory Type: [App Direct]
These values are selectable options for PMEM settings, and do not represent the current PMEM
status.
In addition, you can take advantage of a memory configurator, which is available at the following site:
http://1config.lenovo.com/#/memory_configuration
Where 100 stands for the percentage of capacity that is invested in system volatile memory.
– For App Direct Mode:
Where 0 stands for the percentage of capacity that is invested in system volatile memory.
3. Set the PMEM mode.
OneCli.exe config set IntelOptanePMEM.PersistentMemoryType "App Direct" --bmc XCC_Account:XCC_
Password@XCC_IP
Where App Direct stands for the PMEM mode. You can input App Direct for App Direct
interleaved or App Direct Not Interleaved for App Direct not interleaved.
– Persistent Memory Type
In App Direct Mode, the PMEMs that are connected to the same processor are by default interleaved
(displayed as App Direct), while memory banks are used in turns. To set them as not interleaved in the
Setup Utility, go to Intel Optane PMEMs ➙ Goals ➙ Persistent Memory Type [(PMEM mode)],
select App Direct Not Interleaved and reboot the system.
Note: Setting PMEM App Direct capacity to not interleaved will turn the displayed App Direct regions
from one region per processor to one region per PMEM.
• Regions
After the memory percentage is set and the system is rebooted, regions for the App Direct capacity will be
generated automatically. Select this option to view the App Direct regions per processor.
• Namespaces
App Direct capacity of PMEMs requires the following steps before it is truly available for applications.
1. Namespaces must be created for region capacity allocation.
2. Filesystem must be created and formatted for the namespaces in the operating system.
Each App Direct region can be allocated into one namespace. Create namespaces in the following
operating systems:
– Windows: Use powershell command. To create a namespace, use Windows Server 2019 or later
versions.
– Linux: Use ndctl command.
– VMware: Reboot the system, and VMware will create namespaces automatically.
After creating namespaces for App Direct capacity allocation, make sure to create and format filesystem
in the operating system so that the App Direct capacity is accessible for applications.
• Security
– Enable Security
Attention: By default, PMEM security is disabled. Before enabling security, make sure all the country
or local legal requirements regarding data encryption and trade compliance are met. Violation could
cause legal issues.
PMEMs can be secured with passphrases. Two types of passphrase protection scope are available for
PMEM:
– Platform: Choose this option to run security operation on all the installed PMEM units at once. A
platform passphrase is stored and automatically applied to unlock PMEMs before operating system
starts running, but the passphrase still has to be disabled manually for secure erase.
Alternatively, enable/disable platform level security with the following commands in OneCLI:
Notes:
• Single PMEM passphrases are not stored in the system, and security of the locked units needs to
be disabled before the units are available for access or secure erase.
• Always make sure to keep records of the slot number of locked PMEMs and corresponding
passphrases. In the case the passphrases are lost or forgotten, the stored data cannot be backed
up or restored, but you can contact Lenovo service for administrative secure erase.
• After three failed unlocking attempts, the corresponding PMEMs enter “exceeded” state with a
system warning message, and the PMEM unit can only be unlocked after the system is rebooted.
To enable passphrase, go to Security ➙ Press to Enable Security.
– Secure Erase
Notes:
– Password is required to perform Secure Erase when security enabled.
– Before executing secure erase, make sure ARS (Address Range Scrub) is done on all PMEMs or on
the specific PMEMs selected. Otherwise, secure erase cannot be started on all PMEMs or the
specific PMEM selected, and the following text message will pop out:
The passphrase is incorrect for single or multiple or all Intel Optane PMEMs selected, or maybe there is
namespace on the selected PMEMs. Secure erase operation is not done on all Intel Optane PMEMs selected.
Secure erase cleanses all the data that is stored in the PMEM unit, including encrypted data. This data
deletion method is recommended before returning or disposing a malfunctioning unit, or changing
PMEM mode. To perform secure erase, go to Security ➙ Press to Secure Erase.
Alternatively, perform platform level secure erase with the following command in OneCLI:
Notes: See the following links to learn how to download and use impctl in different operating systems:
• Windows: https://datacentersupport.lenovo.com/us/en/videos/YTV101407
• Linux: https://datacentersupport.lenovo.com/us/en/solutions/HT508642
5. Reboot the system.
• D: DRAM DIMM
• P: Persistent Memory Module (PMEM)
DIMM slots
Configuration
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
1 PMEM and 6 D D P D D D D
DIMMs*
1 PMEM and 8 D D P D D D D D D
DIMMs*
2 PMEMs and 12 D D D D P D D D D P D D D D
DIMMs
4 PMEMs and 4 P D P D D P D P
DIMMs
4 PMEMs and 8 D D P D D P P D D P D D
DIMMs
8 PMEMs and 8 D P D P D P D P P D P D P D P D
DIMMs
Note: Configurations with an asterisk (*) support the not-interleaved mode only. 100% interleaved mode is
not supported.
Two processors
Table 44. Memory population in App Direct Mode with two processors (CPU 1 and CPU 2)
• D: DRAM DIMM
• P: Persistent Memory Module (PMEM)
Note: Configurations with an asterisk (*) support the not-interleaved mode only. 100% interleaved mode is
not supported.
Memory Mode
In this mode, PMEMs act as volatile system memory, while DRAM DIMMs act as cache. Ensure that the ratio
of total DRAM DIMM capacity to total PMEM capacity within a processor is between 1:4 and 1:16.
• D: DRAM DIMM
• P: Persistent Memory Module (PMEM)
DIMM slots
Configuration
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16
4 PMEMs and 4 P D P D D P D P
DIMMs
4 PMEMs and 8 D D P D D P P D D P D D
DIMMs
8 PMEMs and 8 D P D P D P D P P D P D P D P D
DIMMs
• D: DRAM DIMM
• P: Persistent Memory Module (PMEM)
Technical rules
Refer to the below technical rules and limitations when you install the related server components.
For technical rules for RAID configuration, see “Technical rules for RAID configuration” on page 103.
0 1 2 3 4 5 6 7 8 9
– 10 AnyBay
– 10 NVMe
16 EDSFF 15 14 13 12 11 10 9 8 7 6 5 4 3 2 1 0
Riser 1 assembly
• Slot 1: PCIe x16 (x8, x4, x1), low-profile
• Slot 2: PCIe x16 (x8, x4, x1), low-profile
Riser 2 assembly
• Slot 3: PCIe x16 (x8, x4, x1), low-profile
Riser 1 assembly
• Slot 1: PCIe x16 (x8, x4, x1), low-profile
• Slot 2: PCIe x16 (x8, x4, x1), full-height
Note: One rear wall bracket must be installed next to the two PCIe
slots.
Riser 1 assembly
• Slot 1: PCIe x16 (x8, x4, x1), low-profile
• Slot 2: PCIe x16 (x8, x4, x1), low-profile
Riser 1 assembly
• Slot 1: PCIe x16 (x8, x4, x1), low-profile
Table 49. Recommended installation priority for different types of PCIe adapters
Installation priority
2. Custom form factor (CFF) internal HBA/RAID adapter 8. Fiber channel adapter
When installing a specific PCIe adapter, refer to the following suggested slot installation priority:
Slot 2 > Slot 3 A COM port upgrade kit needs to be installed in slot 2 or 3 as a normal PCIe adapter.
In this case, a riser and bracket are needed.
Slot 1 > Slot 2 > Slot 3 Other PCIe adapters not mentioned above.
Notes:
• For Mellanox ConnectX-6 HDR IB/200GbE Single Port x16 PCIe Adapter, refer to
the following slot priority depending on the quantity of adapters to be installed:
– Two adapters: slot 1, slot 3 or slot 2, slot 3
– Three adapters: slot 1, slot 2, slot 3
• For Xilinx Alveo U50 100GbE 1-Port PCIe Gen4 Adapter, refer to following rules:
– The ambient temperature must be limited to 30°C or lower.
– Use performance fans and no fan fails.
– Only one operating system, Red Hat Enterprise Linux, is supported.
– Do not support Vmware and Windows preload.
• The RAID 940-8i or RAID 940-16i adapter supports Tri-mode. When Tri-mode is
enabled, the server supports SAS, SATA and U.3 NVMe drives at the same time.
NVMe drives are connected via a PCIe x1 link to the controller.
Note: To support Tri-mode with U.3 NVMe drives, U.3 x1 mode must be enabled
for the selected drive slots on the backplane through the XCC Web GUI. Otherwise,
the U.3 NVMe drives cannot be detected. For more information, see “U.3 NVMe
drive can be detected in NVMe connection, but cannot be detected in Tri-mode” on
page 250.
Front bays Max. CPU TDP1 Heat sink Air baffle Fan type Max. DIMM Qty.
Ambient (watts)
Temp. (at DRAM2 PMEM3
sea level)
Notes:
1. For 6334, 4310T, 6338T, and 5320T processors, performance heat sinks must be used.
2. When a 256 GB 3DS RDIMM or 256 GB PMEM is installed, the ambient temperature must be limited to
30°C or lower.
3. The capacity of 3DS RDIMM and PMEM supported is not greater than 256 GB.
TDP ≤ Perform-
Standard √ 32 x
• Rear 125 ance
• 4 x 3.5" SAS/
• 2 x 2.5" 125 <
SATA: Perform-
• 4 x 2.5" SAS/ TDP ≤ Standard √ 32 x
35°C ance
SATA/ 165
• 8 x 2.5"
U.2 • Rear
• 10 x 2.5" U.2: 165 <
Perform-
TDP ≤ Standard √ 32 x
30°C ance
205
Notes:
1. For 6334, 4310T, 6338T, and 5320T processors, performance heat sinks must be used.
2. When a 256 GB 3DS RDIMM, the ambient temperature must be limited to 30°C or lower, and the
capacity of 3DS RDIMM supported is not greater than 256 GB.
• Active GPUs:
– NVIDIA® Quadro® P620
– NVIDIA® Quadro® P2200
• Passive GPUs:
– NVIDIA® Tesla® T4
– NVIDIA® A2
– NVIDIA® L4
Notes:
1. Up to one P2200 GPU adapter is supported, while a maximum of three T4, L4, P620 or A2 GPU adapters
are supported.
2. All GPUs installed must be identical.
Notes:
1. For 6334, 4310T, 6338T, and 5320T processors, performance heat sinks must be used.
2. When a 256 GB 3DS RDIMM or 256 GB PMEM is installed, the ambient temperature must be limited to
30°C or lower.
3. The capacity of 3DS RDIMM and PMEM supported is not greater than 256 GB.
4. When the processor TDP is within the range between 205 W (not included) to 220 W, the ambient
temperature must be limited to 30°C or lower, regardless of which GPU is installed.
5. When the processor TDP is within the range between 220 W (not included) to 270 W, only 4 x 2.5-inch
SAS/SATA front backplane is supported.
Use following topics to learn about the technical rules for system fans and GPUs:
Note: The redundant cooling by the fans in the server enables continued operation if one rotor of a fan fails.
Standard or performance
TDP <= 165 W
fan
Notes:
• Standard fans are enough for low-wattage processors while you can still use performance fans for better
cooling.
• If there is an OCP 3.0 Ethernet adapter installed, when the system is powered off but still plugged in to AC
power, fans 1 and 2 will continue to spin at a much lower speed. This is the system design to provide
proper cooling for the OCP 3.0 Ethernet adapter.
The following are rules for installing GPUs for your server:
• For GPU configuration, the CPU TDP must not be greater than 200 W. However, if the 4 x 2.5'' SAS/SATA
drive backplane is used or no backplane is used, the CPU TDP can support up to 270 W.
• If a passive GPU adapter is used, the performance fan must be used.
• Refer to the following slot priority when installing a GPU adapter:
– T4, P620, A2, L4: slot 1, slot 3, slot 2
– P2200: slot 2 (full-height)
• When T4, L4 or A2 is installed, the ambient temperature must be limited to 30°C or lower.
• Up to one P2200 GPU adapter is supported, while a maximum of three T4, L4, P620 or A2 GPU adapters
are supported.
• All GPUs installed must be identical.
To prevent potential thermal issues, change the Misc setting in the BIOS from Option3 (default value) to
Option1 if the following two conditions are met:
• The server is equipped with a GPU adapter.
• The UEFI firmware version is AFE128B or later.
Depending on the model, your server might not have an air baffle installed. The air baffle you want to remove
might be different from the following illustrations, but the removal method is the same.
S033
CAUTION:
Hazardous energy present. Voltages with hazardous energy might cause heating when shorted with
metal, which might result in spattered metal, burns, or both.
S017
CAUTION:
Hazardous moving fan blades nearby. Keep fingers and other body parts away.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If there is a RAID flash power module installed on the bottom of the air baffle, disconnect the RAID
flash power module cable first.
a. Press the release tab to release the connector.
b. Disengage the connector from the cable socket.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Step 3. Grasp the air baffle and carefully lift it out of the server.
Attention: Operating the server with the air baffle removed might damage server components. For
proper cooling and airflow, install the air baffle before you power on the server.
If you would like to reuse the RAID flash power module installed on the bottom of the air baffle, remove it
from the air baffle. See “Remove the RAID flash power module on the air baffle” on page 199.
Demo video
S033
CAUTION:
Hazardous energy present. Voltages with hazardous energy might cause heating when shorted with
metal, which might result in spattered metal, burns, or both.
S017
CAUTION:
Hazardous moving fan blades nearby. Keep fingers and other body parts away.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
Procedure
Step 1. If you need to install a RAID flash power module on the bottom of the air baffle, install it first. See
“Install the RAID flash power module on the air baffle” on page 200.
Step 3. Lower the air baffle into the chassis and press the air baffle down until it is securely seated.
Demo video
Backplane replacement
Use this information to remove and install a backplane.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove all the installed drives and drive fillers from the drive bays. See “Remove a 2.5/3.5-inch
hot-swap drive” on page 145.
Step 3. Disconnect the cables from the backplane. See “2.5-inch/3.5-inch drive backplane (power)” on
page 64 and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 4. Grasp the backplane and carefully lift it out of the chassis.
The following describes how to install the backplane for ten and four 2.5-inch hot-swap drives. You can
install the backplane for eight 2.5-inch hot-swap drives in the same way.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Touch the static-protective package that contains the backplane to any unpainted surface on the
outside of the server. Then, take the backplane out of the package and place it on a static-
protective surface.
Step 2. Connect the cables to the backplane. See “2.5-inch/3.5-inch drive backplane (power)” on page 64
and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 3. Install the backplane to the bracket.
a. Install the backplane as illustrated above and align the screw holes on the backplane and
bracket.
b. Tighten two screws to secure the backplane to the bracket.
Step 4. Align the two pins on the backplane with the corresponding holes in the chassis.
Step 5. Lower the backplane into the chassis. Ensure that the pins pass through the holes and the
backplane is fully seated in place.
Step 6. Connect the cables to the system board or expansion slots. See “2.5-inch/3.5-inch drive backplane
(power)” on page 64 and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Procedure
Note: Depending on the specific type, your backplane might look different from the illustration in this topic.
Step 1. Prepare your server.
a. Remove the top cover. See “Remove the top cover” on page 232.
b. Pivot the backplane backward slightly to release it from the three pins 1 on the chassis.
If you are instructed to return the old backplane, follow all packaging instructions and use any packaging
materials that are provided.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the backplane to any unpainted surface on the
outside of the server. Then, take the backplane out of the package and place it on a static-
protective surface.
Step 2. Connect the cables to the backplane. See “2.5-inch/3.5-inch drive backplane (power)” on page 64
and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 3. Put the backplane down into place.
a. Put the backplane under the front I/O assembly cables, align it with the chassis, and lower
it into the chassis. Put the backplane into place with it leaning backward slightly so that the
three pins 1 on the chassis pass through the three holes 2 in the backplane.
Demo video
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove all the installed drives and drive cages from the drive bays. See “Remove an EDSFF drive”
on page 148.
Step 3. Remove the backplane from the chassis.
Procedure
Step 1. Touch the static-protective package that contains the backplane to any unpainted surface on the
outside of the server. Then, take the backplane out of the package and place it on a static-
protective surface.
Step 2. Connect the cables to the backplane. See “16-EDSFF drive backplane” on page 62.
Step 3. Put the backplane down into place.
a. Align the hole on the backplane with the pin on the chassis, place it down, and slightly slide
it as shown.
b. Tighten the screw to secure the backplane.
Step 4. Connect the cables to the system board or expansion slots. See “16-EDSFF drive backplane” on
page 62.
Procedure
Step 1. Prepare your server.
a. Remove the top cover. See “Remove the top cover” on page 232.
b. Remove all the installed drives and fillers (if any) from the drive bays. See “Remove a 2.5/3.5-
inch hot-swap drive” on page 145.
c. Record the cable connections for 7mm drives and then disconnect all cables from the
backplanes. For information about the backplane cable routing, see “2.5-inch/3.5-inch drive
backplane (power)” on page 64 and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 2. Gently press and hold the tab on the rear hot-swap drive cage as shown and remove the air baffle
from the rear hot-swap drive cage.
Step 3. Disconnect the cables from the 2.5-inch rear drive backplane.
Procedure
Step 1. Touch the static-protective package that contains the rear backplane to any unpainted surface on
the outside of the server. Then, take the rear backplane out of the package and place it on a static-
protective surface.
Step 3. Connect the cables to the backplane. See “2.5-inch/3.5-inch drive backplane (power)” on page 64
and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 4. Install the air baffle into the rear hot-swap drive cage as shown.
Step 5. Connect the cables to the system board or expansion slots. See “2.5-inch/3.5-inch drive backplane
(power)” on page 64 and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Procedure
Note: Depending on the specific type, your backplanes might look different from the illustration in this topic.
Step 1. Prepare your server.
a. Remove the top cover. See “Remove the top cover” on page 232.
b. Remove all the installed drives and fillers (if any) from the drive bays. See “Remove a 2.5/3.5-
inch hot-swap drive” on page 145.
c. Record the cable connections for 7mm drives and then disconnect all cables from the
backplanes. For information about the backplane cable routing, see “7mm drive backplane” on
page 63.
d. Remove the 7mm drive assembly (if any) from the rear chassis. See “Remove the rear drive
assembly” on page 204.
Step 2. Remove the 7mm drive backplane on the top.
If you are instructed to return the old backplanes, follow all packaging instructions and use any packaging
materials that are provided.
Procedure
Step 1. Touch the static-protective package that contains the new backplanes to any unpainted surface on
the outside of the server. Then, take the new backplanes out of the package and place them on a
static-protective surface.
Step 2. Install the 7mm drive backplane at the bottom.
a. Align the pin on the cage and slightly slide the backplane into the cage until it is fully
seated.
b. Install the screw as shown.
Step 3. Install the 7mm drive backplane on the top.
1. Install the 7mm drive cage assembly on the rear chassis. See “Install the rear drive assembly” on page
206.
2. Reinstall all the drives and fillers (if any) into the drive bays. See “Install a 2.5/3.5-inch hot-swap drive” on
page 146.
3. Complete the parts replacement. See “Complete the parts replacement” on page 235.
The following tips describe information that you must consider when removing the CMOS battery.
• Lenovo has designed this product with your safety in mind. The lithium CMOS battery must be handled
correctly to avoid possible danger. If you replace the CMOS battery, you must adhere to local ordinances
or regulations for battery disposal.
• If you replace the original lithium battery with a heavy-metal battery or a battery with heavy-metal
components, be aware of the following environmental consideration. Batteries and accumulators that
contain heavy metals must not be disposed of with normal domestic waste. They will be taken back free
of charge by the manufacturer, distributor, or representative, to be recycled or disposed of in a proper
manner.
• To order replacement batteries, call your support center or business partner. For Lenovo support
telephone numbers, see https://datacentersupport.lenovo.com/supportphonelist for your region support
details.
Note: After you replace the CMOS battery, you must reconfigure the server and reset the system date and
time.
S004
CAUTION:
When replacing the lithium battery, use only Lenovo specified part number or an equivalent type
battery recommended by the manufacturer. If your system has a module containing a lithium battery,
replace it only with the same module type made by the same manufacturer. The battery contains
lithium and can explode if not properly used, handled, or disposed of.
Do not:
• Throw or immerse into water
• Heat to more than 100°C (212°F)
• Repair or disassemble
CAUTION:
The power-control button on the device and the power switch on the power supply do not turn off the
electrical current supplied to the device. The device also might have more than one power cord. To
remove all electrical current from the device, ensure that all power cords are disconnected from the
power source.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove any parts and disconnect any cables that might impede your access to the CMOS battery.
Step 3. Locate the CMOS battery. See “System board components” on page 44.
Step 4. Open the battery clip as shown and carefully take the CMOS battery out of the socket.
Attention:
• Failing to remove the CMOS battery properly might damage the socket on the system board.
Any damage to the socket might require replacing the system board.
• Do not tilt or push the CMOS battery by using excessive force.
Demo video
The following tips describe information that you must consider when installing the CMOS battery.
• Lenovo has designed this product with your safety in mind. The lithium CMOS battery must be handled
correctly to avoid possible danger. If you replace the CMOS battery, you must adhere to local ordinances
or regulations for battery disposal.
• If you replace the original lithium battery with a heavy-metal battery or a battery with heavy-metal
components, be aware of the following environmental consideration. Batteries and accumulators that
contain heavy metals must not be disposed of with normal domestic waste. They will be taken back free
of charge by the manufacturer, distributor, or representative, to be recycled or disposed of in a proper
manner.
• To order replacement batteries, call your support center or business partner. For Lenovo support
telephone numbers, see https://datacentersupport.lenovo.com/supportphonelist for your region support
details.
Note: After you replace the CMOS battery, you must reconfigure the server and reset the system date and
time.
S004
CAUTION:
When replacing the lithium battery, use only Lenovo specified part number or an equivalent type
battery recommended by the manufacturer. If your system has a module containing a lithium battery,
replace it only with the same module type made by the same manufacturer. The battery contains
lithium and can explode if not properly used, handled, or disposed of.
Do not:
• Throw or immerse into water
• Heat to more than 100°C (212°F)
• Repair or disassemble
CAUTION:
The power-control button on the device and the power switch on the power supply do not turn off the
electrical current supplied to the device. The device also might have more than one power cord. To
remove all electrical current from the device, ensure that all power cords are disconnected from the
power source.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Touch the static-protective package that contains the CMOS battery to any unpainted surface on
the outside of the server. Then, take the CMOS battery out of the package.
Step 2. Install the CMOS battery. Ensure that the CMOS battery is seated in place.
Demo video
Procedure
Step 1. If the security bezel is installed, remove it first. See “Remove the security bezel” on page 213.
Step 2. Locate the EDSFF cage you need to remove, and then remove all the EDSFF drives installed in it.
See “Remove an EDSFF drive” on page 148.
Step 3. Remove the EDSFF cage from the chassis.
a. Press down the extended tab on the other side of the front chassis.
b. Slide the EDSFF cage out of the front chassis.
Procedure
Step 1. Touch the static-protective package that contains the EDSFF cage to any unpainted surface on the
outside of the server. Then, take the EDSFF cage out of the package and place it on a static-
protective surface.
Step 2. Slide the diagnostics panel assembly into the front chassis as shown. Ensure that it is seated in
place.
Depending on server models, your server supports the following front I/O assemblies.
For server models with four 3.5-inch front drive Front I/O assembly with diagnostics panel (top)
bays.
For server models with Front I/O assembly+ LCD diagnostics panel assembly
• eight 2.5-inch front drive bays (2)
• 16 EDSFF drives (2)
The following illustrates how to remove the front I/O assembly with diagnostics panel. You can remove other
front I/O assemblies in the same way.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If the security bezel is installed, remove it. See “Remove the security bezel” on page 213.
Step 3. Disconnect the front I/O cables from the system board.
a. Press the release tab to release the connector.
b. Disengage the connector from the cable socket.
Notes:
• Failing to release the tab before removing the cables will damage the cable sockets on the
system board. Any damage to the cable sockets might require replacing the system board.
• The connector on your server may look slightly different from the following illustration.
If you are instructed to return the old front I/O assembly, follow all packaging instructions and use any
packaging materials that are provided.
Demo video
The following illustrates how to install the front I/O assembly with diagnostics panel. You can install other
front I/O assemblies in the same way.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
1. Connect the front I/O cables to the system board. See “Front I/O” on page 57.
2. Complete the parts replacement. See “Complete the parts replacement” on page 235.
Demo video
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If the security bezel is installed, remove it. See “Remove the security bezel” on page 213.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Step 4. Remove the LCD diagnostics panel assembly from the chassis.
a. Press down the extended tab on the other side of the front chassis.
b. Slide the assembly out of the front chassis.
b. Pull the LCD diagnostics panel by its handle to get it out of its assembly.
Procedure
Step 1. Touch the static-protective package that contains the diagnostics panel assembly to any unpainted
surface on the outside of the server. Then, take the assembly out of the package and place it on a
static-protective surface.
Step 3. Insert the LCD diagnostics panel into its assembly. Ensure that the panel is fully seated into its
assembly.
Complete the parts replacement. See “Complete the parts replacement” on page 235.
Note: The heat sink, processor, and processor carrier for your system might be different from those shown
in the illustrations.
Procedure
Step 1. Make preparations for this task.
Figure 71. Removing a Torx T30 nut from the heat sink
Note: Do not touch the gold contacts on the bottom of the processor.
Attention: Visually inspect the removed Torx T30 nut, if the nut is cracked or damaged, make
sure no debris or broken pieces are left inside your server.
Demo video
Procedure
Step 1. Install the Torx T30 nut.
Figure 72. Installing a Torx T30 nut into the heat sink
Note: Do not touch the gold contacts on the bottom of the processor.
c. Push the lower edge of the Torx T30 nut into the socket until it clicks into place. Make sure
the Torx T30 nut is secured under the four clips in the socket.
Demo video
Notes:
The following describes the information that you must consider for this task:
• Ensure that you have backed up data on your drive, especially if it is part of a RAID array.
– Before you make changes to drives, RAID adapters, or drive backplanes, back up all important data
that is stored on the drives.
– Before you remove any component of a RAID array, back up all RAID configuration information.
• If one or more NVMe drives are to be removed, it is recommended to disable them first in Safely Remove
Hardware and Eject Media (Windows) or filesystem (Linux). Log in to XClarity Controller and go to the
Storage menu to identify and locate the drive type and corresponding drive bay number. If the drive bay
numbers come with the term “NVMe”, it indicates the installed drives are NVMe drives.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
• To ensure that there is adequate system cooling, do not operate the server for more than two minutes
without either a drive or a drive filler installed in each bay.
Procedure
Step 1. If the security bezel is installed, remove it first. See “Remove the security bezel” on page 213.
Step 2. Slide the release latch to the left to open the drive tray handle.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the drive to any unpainted surface on the outside
of the server. Then, take the drive out of the package and place it on a static-protective surface.
Note: Ensure that drive installation meets “Technical rules for drives” on page 102.
a. Ensure that the drive tray handle is in the open position. Slide the drive into the drive bay
until it snaps into position.
The following describes the information that you must consider for this task:
• Ensure that you have backed up data on your drive, especially if it is part of a RAID array.
– Before you make changes to drives, RAID adapters, or drive backplanes, back up all important data
that is stored on the drives.
– Before you remove any component of a RAID array, back up all RAID configuration information.
• If one or more NVMe drives are to be removed, it is recommended to disable them first in Safely Remove
Hardware and Eject Media (Windows) or filesystem (Linux). Log in to XClarity Controller and go to the
Storage menu to identify and locate the drive type and corresponding drive bay number. If the drive bay
numbers come with the term “NVMe”, it indicates the installed drives are NVMe drives.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
• To ensure that there is adequate system cooling, do not operate the server for more than two minutes
without either a drive or a drive filler installed in each bay.
Procedure
Step 1. If the security bezel is installed, remove it first. See “Remove the security bezel” on page 213.
a. Slide the release latch as shown to open the drive tray handle.
b. Grasp the handle and slide the drive out of the drive bay.
Procedure
Step 1. Touch the static-protective package that contains the drive to any unpainted surface on the outside
of the server. Then, take the drive out of the package and place it on a static-protective surface.
Note: Ensure that drive installation meets “Technical rules for drives” on page 102.
Step 2. Install the EDSFF drive.
a. Ensure that the drive tray handle is in the open position. Slide the drive into the drive bay
until it snaps into position.
S035
CAUTION:
Never remove the cover on a power supply or any part that has this label attached. Hazardous voltage,
current, and energy levels are present inside any component that has this label attached. There are no
serviceable parts inside these components. If you suspect a problem with one of these parts, contact
a service technician.
S002
CAUTION:
The power-control button on the device and the power switch on the power supply do not turn off the
electrical current supplied to the device. The device also might have more than one power cord. To
remove all electrical current from the device, ensure that all power cords are disconnected from the
power source.
S001
DANGER
CAUTION:
240 V dc input (input range: 180-300 V dc) is supported in Chinese Mainland ONLY. Power supply with
240 V dc input cannot support hot plugging power cord function. Before removing the power supply
在直流输入状态下,若电源供应器插座不支持热插拔功能,请务必不要对设备电源线进行热插拔,此操作可能
导致设备损坏及数据丢失。因错误执行热插拔导致的设备故障或损坏,不属于保修范围。
NEVER CONNECT AND DISCONNECT THE POWER SUPPLY CABLE AND EQUIPMENT WHILE YOUR
EQUIPMENT IS POWERED ON WITH DC SUPPLY (hot-plugging). Otherwise you may damage the
equipment and result in data loss, the damages and losses result from incorrect operation of the equipment
will not be covered by the manufacturers’ warranty.
S035
CAUTION:
Never remove the cover on a power supply or any part that has this label attached. Hazardous voltage,
current, and energy levels are present inside any component that has this label attached. There are no
serviceable parts inside these components. If you suspect a problem with one of these parts, contact
a service technician.
S019
CAUTION:
The power-control button on the device does not turn off the electrical current supplied to the device.
The device also might have more than one connection to dc power. To remove all electrical current
from the device, ensure that all connections to dc power are disconnected at the dc power input
terminals.
DANGER
For -48V dc power supply, electrical current from power cables is hazardous.
To avoid a shock hazard:
• To connect or disconnect -48V dc power cables when you need to remove/install redundancy
power supply unit(s).
To Connect: To Disconnect:
1. Turn OFF subject dc power source(s) and equipment 1. Disconnect or turn off the subject dc power source(s)
(s) that are attached to this product. (at the breaker panel) before removing the power
2. Install the power supply unit(s) into the system supply unit(s).
housing. 2. Remove the subject dc cord(s) and make sure the
3. Attach dc power cord(s) to the product. wire terminal of power cord(s) is insulated.
3. Unplug the subject power supply unit(s) from the
• Ensure correct polarity of -48 V dc connections:
system housing.
RTN is + and -Vin (typical -48 V) dc is -. Earth
ground should be connected very well.
4. Connect dc power cord(s) to subject power source
(s).
5. Turn ON all the power source(s).
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
1. Press down the stop bracket 1 and rotate it to the open position.
2. Rotate the CMA out of the way to gain access to the power supply.
Step 2. Disconnect the power cord from the hot-swap power supply.
• For 240 V DC power supply units, turn off the server, then, disconnect both ends of the power
cord and keep it in an ESD-safe place.
• For AC power supply units, disconnect both ends of the power cord and keep it in an ESD-safe
place.
• For –48V DC power supply units:
1. Disconnect the power cords from the electrical outlet.
2. Use a slotted screwdriver to loosen the captive screws on the power supply terminal block.
3. Disconnect the power cords from the power supply unit, make the wire terminal insulated,
and keep them in an ESD-safe place.
Note: If you are replacing two power supplies, replace them one by one to ensure that the power
supply to the server is not interrupted. Do not disconnect the power cord from the secondly
replaced power supply until the power output LED for the firstly replaced power supply is lit. For the
location of the power output LED, refer to “Rear view LEDs” on page 43.
Important: To ensure proper cooling during normal server operation, both of the power supply bays
must be occupied. This means that each bay must have a power supply installed; or one has a power
supply installed and the other has a power supply filler installed.
2. If you are instructed to return the old hot-swap power supply, follow all packaging instructions and use
any packaging materials that are provided.
Demo video
Figure 83. Example power supply unit label on the top cover
S035
CAUTION:
Never remove the cover on a power supply or any part that has this label attached. Hazardous voltage,
current, and energy levels are present inside any component that has this label attached. There are no
serviceable parts inside these components. If you suspect a problem with one of these parts, contact
a service technician.
S002
CAUTION:
The power-control button on the device and the power switch on the power supply do not turn off the
electrical current supplied to the device. The device also might have more than one power cord. To
remove all electrical current from the device, ensure that all power cords are disconnected from the
power source.
S001
CAUTION:
240 V dc input (input range: 180-300 V dc) is supported in Chinese Mainland ONLY. Power supply with
240 V dc input cannot support hot plugging power cord function. Before removing the power supply
with dc input, please turn off server or disconnect dc power sources at the breaker panel or by turning
off the power source. Then, remove the power cord.
在直流输入状态下,若电源供应器插座不支持热插拔功能,请务必不要对设备电源线进行热插拔,此操作可能
导致设备损坏及数据丢失。因错误执行热插拔导致的设备故障或损坏,不属于保修范围。
NEVER CONNECT AND DISCONNECT THE POWER SUPPLY CABLE AND EQUIPMENT WHILE YOUR
EQUIPMENT IS POWERED ON WITH DC SUPPLY (hot-plugging). Otherwise you may damage the
equipment and result in data loss, the damages and losses result from incorrect operation of the equipment
will not be covered by the manufacturers’ warranty.
S035
CAUTION:
Never remove the cover on a power supply or any part that has this label attached. Hazardous voltage,
current, and energy levels are present inside any component that has this label attached. There are no
serviceable parts inside these components. If you suspect a problem with one of these parts, contact
a service technician.
CAUTION:
The power-control button on the device does not turn off the electrical current supplied to the device.
The device also might have more than one connection to dc power. To remove all electrical current
from the device, ensure that all connections to dc power are disconnected at the dc power input
terminals.
S029
DANGER
For -48V dc power supply, electrical current from power cables is hazardous.
To avoid a shock hazard:
• To connect or disconnect -48V dc power cables when you need to remove/install redundancy
power supply unit(s).
To Connect: To Disconnect:
1. Turn OFF subject dc power source(s) and equipment 1. Disconnect or turn off the subject dc power source(s)
(s) that are attached to this product. (at the breaker panel) before removing the power
2. Install the power supply unit(s) into the system supply unit(s).
housing. 2. Remove the subject dc cord(s) and make sure the
3. Attach dc power cord(s) to the product. wire terminal of power cord(s) is insulated.
3. Unplug the subject power supply unit(s) from the
• Ensure correct polarity of -48 V dc connections:
system housing.
RTN is + and -Vin (typical -48 V) dc is -. Earth
ground should be connected very well.
4. Connect dc power cord(s) to subject power source
(s).
5. Turn ON all the power source(s).
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Touch the static-protective package that contains the hot-swap power supply to any unpainted
surface on the outside of the server. Then, take the hot-swap power supply out of the package and
place it on a static-protective surface.
Step 3. Slide the new hot-swap power supply into the bay until it snaps into position.
Step 4. Connect the power supply unit to a properly grounded electrical outlet.
• For 240 V DC power supply units:
1. Turn off the server.
2. Connect one end of the power cord to the power connector on the power supply unit.
3. Connect the other end of the power cord to a properly grounded electrical outlet.
• For AC power supply units:
1. Connect one end of the power cord to the power connector on the power supply unit.
2. Connect the other end of the power cord to a properly grounded electrical outlet.
• For –48V DC power supply units:
1. Use a slotted screwdriver to loosen the 3 captive screws on the power supply terminal
block.
2. Check the type label on the power supply block and each power cord.
Input
-Vin
Ground
GND
Input
RTN
3. Face the groove side of each power cord pin upwards, and then plug the pins into
corresponding holes on the power block. Use the table above for guidance to ensure that
the pins find correct slots.
4. Tighten the captive screws on the power block. Ensure that the screws and cord pins are
secured in place and no bare metal parts are shown.
5. Connect the other end of the cables to a properly grounded electrical outlet. Ensure that the
cable ends find correct outlets.
Demo video
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove any components that may impede access to the internal CFF HBA/RAID adapter.
Step 3. Disconnect all cables from the internal CFF HBA/RAID adapter.
a. Press the release tab to release the connector.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Step 4. Lift the release pin, slightly slide the internal CFF HBA/RAID adapter as shown, and carefully lift it
out of the chassis.
If you are instructed to return the old internal CFF HBA/RAID adapter, follow all packaging instructions and
use any packaging materials that are provided.
Procedure
Step 1. Touch the static-protective package that contains the internal CFF HBA/RAID adapter to any
unpainted surface on the outside of the server. Then, take the internal CFF HBA/RAID adapter out
of the package and place it on a static-protective surface.
Step 2. Align the notches on the tray with the pins on the chassis, place down the internal CFF HBA/RAID
adapter, and slightly slide it as shown to secure it on the chassis.
Step 3. Connect cables to the internal RAID adapter. See “CFF HBA/RAID adapter” on page 54.
The intrusion switch informs you that the server cover is not properly installed or closed by creating an event
in the system event log (SEL).
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the cable of the intrusion switch from the system board. For the location of the intrusion
switch connector and cable routing information, refer to “System board components” on page 44
and “Intrusion switch” on page 58.
Step 3. Slide the intrusion switch as shown to remove it.
If you are instructed to return the old intrusion switch, follow all packaging instructions and use any
packaging materials that are provided.
Procedure
Step 3. Connect the cable of the intrusion switch to the intrusion switch connector on the system board.
See “Intrusion switch” on page 58.
Complete the parts replacement. See “Complete the parts replacement” on page 235.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If your server comes with an air baffle, remove it. See “Remove the air baffle” on page 111.
Step 3. Remove the memory module from the slot.
mm
a. Open the retaining clip on each end of the memory module slot.
Attention: To avoid breaking the retaining clips or damaging the memory module slots, handle
the clips gently.
b. Grasp the memory module at both ends and carefully lift it out of the slot.
Demo video
See “Memory module installation order” in Setup Guide for detailed information about memory configuration
and setup.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Memory modules are sensitive to static discharge and require special handling. Refer to the standard
guidelines for “Handling static-sensitive devices” on page 88:
– Always wear an electrostatic-discharge strap when removing or installing memory modules.
Electrostatic-discharge gloves can also be used.
– Never hold two or more memory modules together so that they do not touch each other. Do not stack
memory modules directly on top of each other during storage.
– Never touch the gold memory module connector contacts or allow these contacts to touch the outside
of the memory module connector housing.
– Handle memory modules with care: never bend, twist, or drop a memory module.
– Do not use any metal tools (such as jigs or clamps) to handle the memory modules, because the rigid
metals may damage the memory modules.
– Do not insert memory modules while holding packages or passive components, which can cause
package cracks or detachment of passive components by the high insertion force.
Procedure
Step 1. Touch the static-protective package that contains the memory module to any unpainted surface on
the outside of the server. Then, take the memory module out of the package and place it on a
static-protective surface.
Step 2. Locate the required memory module slot on the system board.
Note: Ensure that you observe the installation rules and sequence in “Memory module installation
rules and order” on page 88.
a. Open the retaining clip on each end of the memory module slot.
Attention: To avoid breaking the retaining clips or damaging the memory module slots, open
and close the clips gently.
b. Align the memory module with the slot, and gently place the memory module on the slot
with both hands.
c. Firmly press both ends of the memory module straight down into the slot until the retaining
clips snap into the locked position.
Note: If there is a gap between the memory module and the retaining clips, the memory
module has not been correctly inserted. In this case, open the retaining clips, remove the
memory module, and then reinsert it.
Complete the parts replacement. See “Complete the parts replacement” on page 235.
Demo video
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the M.2 cables from the M.2 backplane.
Note: The M.2 backplane you want to remove might be different from the following illustrations,
but the removal method is the same.
d. Pull the M.2 drive away from the connector 1 at an angle of approximately 30 degrees.
Step 4. Remove the M.2 module from the chassis.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
If you are instructed to return the old M.2 backplane or M.2 drive, follow all packaging instructions and use
any packaging materials that are provided.
Demo video
Procedure
Note: The M.2 backplane you want to adjust might be different from the following illustrations, but the
adjustment method is the same.
Step 2. Move the retainer forward until it is in the large opening of the keyhole.
Step 4. Insert the retainer into the correct keyhole into which the retainer should be installed to
accommodate the particular size of the M.2 drive you wish to install.
Procedure
Step 1. Touch the static-protective package that contains the M.2 backplane and M.2 drive to any
unpainted surface on the outside of the server. Then, take the M.2 backplane and M.2 drive out of
the package and place them on a static-protective surface.
Notes:
• The M.2 backplane module is shipped with a loose screw, but the screw is not necessarily used
for the installation.
• The M.2 backplane you want to install might be different from the following illustrations, but the
installation method is the same.
Step 2. Adjust the retainer on the M.2 backplane to accommodate the particular size of the M.2 drive you
wish to install. See “Adjust the retainer on the M.2 backplane” on page 171.
Note: For some M.2 backplanes that support two identical M.2 drives, install the M.2 drive in slot 0
first.
1 Slot 0
2 Slot 1
a. Align the notch of the M.2 backplane with the pin on the chassis, and then place down the
M.2 backplane.
a. Insert the M.2 drive at an angle of approximately 30 degrees into the connector.
b. Rotate the M.2 drive down until the notch 1 catches on the lip of the retainer 2 .
c. Slide the retainer forward (toward the connector) to secure the M.2 drive into place.
Step 7. Connect the cables to the M.2 backplane and system board. For more information about cable
routing, see “M.2 drive backplane” on page 61.
a. Tilt the connector at an angle of 20 degrees or lower, and insert it until its bottom surface
reaches the ramp.
b. Press the connector down flat.
c. Tighten the screw on the signal cable.
d. Connect the power cable.
Note: The OCP 3.0 Ethernet adapter is available only on some models.
Procedure
Step 2. Pull out the OCP 3.0 Ethernet adapter by its handle on the left as shown.
Install a new OCP 3.0 Ethernet adapter or a card filler. See “Install the OCP 3.0 Ethernet adapter” on page
176.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the OCP 3.0 Ethernet adapter to any unpainted
surface on the outside of the server. Then, take the OCP 3.0 Ethernet adapter out of the package
and place it on a static-protective surface.
Note: Ensure that the Ethernet adapter is fully seated and the thumbscrew is securely tightened.
Otherwise, the OCP 3.0 Ethernet adapter will not get full connection and may not function.
a. Push the OCP 3.0 Ethernet adapter by its handle on the left until it is fully inserted into the
connector on the system board.
Notes:
Figure 104. OCP 3.0 Ethernet adapter (two Figure 105. OCP 3.0 Ethernet adapter (four
connectors, seen from the rear) connectors, seen from the rear)
• The OCP 3.0 Ethernet adapter provides two or four extra Ethernet connectors for network
connections.
• By default, Ethernet connector 1 (the first port starting from the left in the rear server view) on the
OCP 3.0 Ethernet adapter can also function as a management connector using the shared
management capacity. If the shared management connector fails, traffic can automatically
switch over to another connector on the adapter.
Demo video
The PCIe adapter can be an Ethernet adapter, a host bus adapter (HBA), a PCIe RAID adapter, a PCIe
interposer adapter, a PCIe solid-state drive, a PCIe GPU, and any other supported PCIe adapter.
Notes:
• Depending on the specific type, the PCIe adapter might look different from the illustrations in this topic.
• Use any documentation that comes with the PCIe adapter and follow those instructions in addition to the
instructions in this topic.
• To prevent potential thermal issues, change the Misc setting in the BIOS from Option3 (default value) to
Option1 if the following two conditions are met:
– The server is equipped with a GPU adapter.
– The UEFI firmware version is AFE128B or later.
For the method of changing the Misc setting, see https://support.lenovo.com/us/en/solutions/TT1832.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove the riser assembly. See “Remove a riser card” on page 209.
Step 3. Remove the PCIe adapter from the riser assembly.
b. Grasp the PCIe adapter by its edges and carefully pull it out of the PCIe adapter slot on the
riser card.
Note: The procedure for removing a PCIe adapter is similar for different types of riser assembly. In
this topic, the LP-FH riser assembly is used as an example.
Demo video
Procedure
Figure 107. PCIe adapter installation into the LP-FH riser assembly
a. Align the PCIe adapter with the PCIe slot on the riser card. Then, carefully press the PCIe
adapter straight into the slot until it is securely seated and its bracket also is secured.
Notes:
1. Ensure that PCIe adapter installation meets “Technical rules for PCIe adapters” on page 103.
2. The procedure for installing a PCIe adapter is similar for different types of riser assembly. In
this topic, the LP-FH riser assembly is used as an example.
Step 4. Connect cables to the PCIe adapter in the riser assembly. See Chapter 3 “Internal cable routing” on
page 53.
1. Reinstall the riser assembly. See “Install a riser card” on page 211.
2. Update the adapter and system firmware to the latest version to better support current configuration.
For more details, see “Firmware updates” on page 12.
3. Complete the parts replacement. See “Complete the parts replacement” on page 235.
Demo video
S002
CAUTION:
The power-control button on the device and the power switch on the power supply do not turn off the
electrical current supplied to the device. The device also might have more than one power cord. To
remove all electrical current from the device, ensure that all power cords are disconnected from the
power source.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
• If the server is in a rack, remove it from the rack.
• Each processor socket must always contain a cover or a PHM. When removing or installing a PHM,
protect empty processor sockets with a cover.
• Do not touch the processor socket or processor contacts. Processor-socket contacts are very fragile and
easily damaged. Contaminants on the processor contacts, such as oil from your skin, can cause
connection failures.
• Do not allow the thermal grease on the processor or heat sink to come in contact with anything. Contact
with any surface can compromise the thermal grease, rendering it ineffective. Thermal grease can damage
components, such as the electrical connectors in the processor socket.
• Remove and install only one PHM at a time. If the system board supports multiple processors, install the
PHMs starting with the first processor socket.
Note: The heat sink, processor, and processor carrier for your system might be different from those shown
in the illustrations.
Callout Callout
1 Heat sink 9 Clips to secure processor in carrier
Procedure
Step 1. Make preparations for this task.
a. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If the processor comes with a T-shaped heat sink, fully loosen the two heat sink screws as shown.
a. Fully loosen the Torx T30 nuts on the PHM in the removal sequence shown on the heat-sink
label.
b. Rotate the anti-tilt wire bails inward.
c. Carefully lift the PHM from the processor socket. If the PHM cannot be fully lifted out of the
socket, further loosen the Torx T30 nuts and try lifting the PHM again.
Notes:
• Do not touch the contacts on the bottom of the processor.
• Keep the processor socket clean from any object to prevent possible damages.
• If you are removing the PHM as part of a system board replacement, set the PHM aside.
• If you are reusing the processor or heat sink, separate the processor from its retainer. See “Separate the
processor from carrier and heat sink” on page 184
• If you are instructed to return the defective component, please package the part to prevent any shipping
damage. Reuse the packaging the new part arrived in and follow all packaging instructions.
Demo video
Note: The heat sink, processor, and processor carrier for your system might be different than those shown
in the illustrations.
Figure 111. Separating a processor from the heat sink and carrier
b. Hold the processor by its edges; then, lift the processor from the heat sink and carrier.
c. Without putting the processor down, wipe the thermal grease from the top of the processor
with an alcohol cleaning pad; then, place the processor on a static protective surface with the
processor-contact side up.
Step 2. Separate the processor carrier from the heat sink.
Note: The processor carrier will be discarded and replaced with a new one.
Notes:
• The heat sink, processor, and processor carrier for the system might be different from those shown in the
illustrations.
• PHMs are keyed for the socket where they can be installed and for their orientation in the socket.
• See https://serverproven.lenovo.com/ for a list of processors supported for your server. All processors on
the system board must have the same speed, number of cores, and frequency.
• Before you install a new PHM or replacement processor, update your system firmware to the latest level.
See “Update the firmware” in the ThinkSystem SR630 V2 Setup Guide.
Callout Callout
1 Heat sink 9 Clips to secure processor in carrier
Procedure
Step 1. If you are replacing a processor and reusing the heat sink.
a. Remove the processor identification label from the heat sink and replace it with the new label
that comes with the replacement processor.
b. If there is any old thermal grease on the heat sink, wipe the thermal grease from the bottom of
the heat sink with an alcohol cleaning pad.
Step 2. If you are replacing a heat sink and reusing the processor.
a. Remove the processor identification label from the old heat sink and place it on the new heat
sink in the same location. The label is on the side of the heat sink closest to the triangular
alignment mark.
Note: Replacement heat sinks come with both gray and black processor carriers. Make sure
to use the carrier with the same color as the one you discarded earlier.
2. Align the processor on the new carrier so that the triangular marks align; then, insert
the marked end of the processor into the carrier.
3. Hold the inserted end of the processor in place; then, pivot the unmarked end of the
carrier down and away from the processor.
4. Press the processor and secure the unmarked end under the clip on the carrier.
5. Carefully pivot the sides of the carrier down and away from the processor.
6. Press the processor and secure the sides under the clips on the carrier.
Note: To prevent the processor from falling out of the carrier, keep the processor-contact
side up and hold the processor-carrier assembly by the sides of the carrier.
Step 3. Apply thermal grease.
a. Carefully place the processor and carrier in the shipping tray with the processor-contact side
down. Make sure the triangular mark on the carrier is aligned with the triangular mark in the
shipping tray.
b. If there is any old thermal grease on the processor, gently wipe the top of the processor with
an alcohol cleaning pad.
Note: Make sure the alcohol has fully evaporated before applying new thermal grease.
a. Align the triangular mark on the heat sink label with the triangular mark on the processor carrier
and processor.
b. Install the heat sink onto the processor-carrier.
c. Press the carrier into place until the clips at all four corners engage.
Step 5. Install the processor-heat-sink module into the system board socket.
c. Rotate the anti-tilt wire bails outward until they engage with the hooks in the socket.
d. Fully tighten the Torx T30 nuts in the installation sequence shown on the heat-sink label.
Tighten the screws until they stop; then, visually inspect to make sure that there is no gap
between the screw shoulder beneath the heat sink and the processor socket. (For reference,
the torque required for the fasteners to fully tighten is 1.1 newton-meters, 10 inch-pounds).
Step 6. If the processor comes with a T-shaped heat sink, fully tighten the two heat sink screws as shown.
(For reference, the torque required for the fasteners to fully tighten is 1.1 newton-meters, 10 inch-
pounds).
Demo video
Procedure
Step 1. If the server is installed with the security bezel, remove it first. See “Remove the security bezel” on
page 213.
Step 2. Use a flat-blade screwdriver to remove the ID label plate on the right rack latch and place it in a
safe place.
Step 4. On each side of the server, remove the rack latch from the chassis as shown.
If you are instructed to return the old rack latches, follow all packaging instructions and use any packaging
materials that are provided.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the rack latches to any unpainted surface on the
outside of the server. Then, take the rack latches out of the package and place them on a static-
protective surface.
Step 2. On each side of the server, align the rack latch with the pin on the chassis. Then, press the rack
latch onto the chassis and slightly slide it forward as shown.
Step 3. Install the two screws to secure the rack latch on each side of the server.
2. Complete the parts replacement. See “Complete the parts replacement” on page 235.
Demo video
RAID super capacitors can be installed on the chassis, in the air baffle, or to one riser slot.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the cable of the RAID flash power module.
a. Press the release tab to release the connector.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Figure 126. Removal of the RAID flash power module on the chassis
a. Open the retention clip on the holder of the RAID flash power module.
b. Slide the holder as depicted below and lift the holder out of the chassis.
Procedure
Step 1. Touch the static-protective package that contains the RAID flash power module to any unpainted
surface on the outside of the server. Then, take the RAID flash power module out of the package
and place it on a static-protective surface.
b. Slide the tray as depicted below and lift the tray out of the chassis.
Step 3. If the server does not have a RAID flash power module holder on the chassis, install one first.
Figure 130. Installation of the RAID flash power module on the chassis
b. Put the RAID flash power module into the holder and press it down to secure it into the
holder.
1. Connect the super capacitor module to an adapter with the extension cable that comes with the flash
power module. See “RAID flash power modules” on page 59.
2. Complete the parts replacement. See “Complete the parts replacement” on page 235.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the cable of the RAID flash power module.
a. Press the release tab to release the connector.
b. Disengage the connector from the cable socket.
Step 3. Remove the air baffle from the chassis. See “Remove the air baffle” on page 111.
Step 4. Remove the RAID flash power module on the air baffle.
Figure 132. Removal of the RAID flash power module on the air baffle
a. Open the retention clip on the holder of the RAID flash power module.
If you are instructed to return the old RAID flash power module, follow all packaging instructions and use any
packaging materials that are provided.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the RAID flash power module to any unpainted
surface on the outside of the server. Then, take the RAID flash power module out of the package
and place it on a static-protective surface.
Step 2. Install the RAID flash power module on the air baffle.
Figure 133. Installation of the RAID flash power module on the air baffle
b. Put the RAID flash power module into the air baffle and press it down to secure it into the
air baffle.
Demo video
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the cable of the RAID flash power module.
a. Press the release tab to release the connector.
b. Disengage the connector from the cable socket.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Step 3. Remove the riser assembly. See “Remove a riser card” on page 209.
Figure 135. Removal of the RAID super capacitor assembly from the riser
c. Open the retention clip on the holder of the RAID flash power module.
If you are instructed to return the old RAID flash power module, follow all packaging instructions and use any
packaging materials that are provided.
Procedure
Step 1. Touch the static-protective package that contains the RAID flash power module to any unpainted
surface on the outside of the server. Then, take the RAID flash power module out of the package
and place it on a static-protective surface.
Figure 136. Installation of the RAID flash power module on the riser
b. Put the RAID flash power module into the holder and press it down to secure it into the
holder.
c. Rotate the latch on the riser bracket to the open position.
d. Align the RAID flash power assembly with the slot on the riser card. Then, carefully press
the RAID flash power assembly straight into the slot until it is securely seated and its bracket
also is secured.
1. Install the riser assembly on the chassis. See “Install a riser card” on page 211.
2. Connect the flash power module to an adapter with the extension cable that comes with the flash power
module. See “RAID flash power modules” on page 59.
3. Complete the parts replacement. See “Complete the parts replacement” on page 235.
Note: The term “hot-swap drive” refers to all the supported types of 2.5-inch hot-swap hard disk drives and
hot-swap solid-state drives.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Remove the drives or drive fillers installed in the rear drive cage. See “Remove a 2.5/3.5-inch hot-
swap drive” on page 145.
Step 3. Disconnect the rear drive cage cables from the system board or the PCIe adapter.
a. Press the release tab to release the connector.
b. Disengage the connector from the cable socket.
Note: Failing to release the tab before removing the cables will damage the cable sockets on
the system board. Any damage to the cable sockets might require replacing the system board.
Step 5. If the rear backplane is reused, remove the rear backplane. See “Remove the 2.5-inch rear drive
backplane” on page 122.
If you are instructed to return the old rear drive cage, follow all packaging instructions and use any packaging
materials that are provided.
Demo video
The following illustrates how to install the 2.5-inch rear drive assembly. You can install the 7mm rear drive
assembly in the same way.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 3. Align the rear backplane with the rear drive cage and lower it into the rear drive cage.
Step 4. Connect the cables to the backplane. See “2.5-inch/3.5-inch drive backplane (power)” on page 64
and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Step 6. Align the pins on the rear drive cage with the corresponding hole and slot in the chassis. Then,
lower the rear drive cage into the chassis until it is fully seated.
Step 7. Connect the cables to the system board or expansion slots. See “2.5-inch/3.5-inch drive backplane
(power)” on page 64 and “2.5-inch/3.5-inch drive backplane (signal)” on page 65.
Demo video
There are different types of riser assembly configurations. The removal or installation procedure of the riser
card is similar for all types of riser assembly. The following takes the LP-FH riser assembly as an example.
The riser assembly you want to remove might be different from the following illustrations, but the removal
method is the same. The following takes the LP-FH riser assembly as an example.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. If there is any PCIe adapter installed on the riser card, record the cable connections first. Then,
disconnect all cables from the PCIe adapter.
Step 4. If necessary, remove the PCIe adapters that are installed on the riser card. See “Remove a PCIe
adapter” on page 178.
Step 5. Remove the riser card from the bracket.
a. Remove the two screws that secure the riser card to the bracket.
b. Remove the riser card.
Demo video
The riser assembly you want to install might be different from the following illustrations, but the installation
method is the same. The following takes the LPFH riser assembly as an example.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Touch the static-protective package that contains the riser card to any unpainted surface on the
outside of the server. Then, take the riser card out of the package and place it on a static-protective
surface.
1. Align the screw holes in the riser card with the corresponding ones in the bracket.
2. Install the two screws to secure the riser card to the bracket
Step 3. If necessary, reinstall the PCIe adapters on the riser card. See “Install a PCIe adapter” on page 179.
Then, refer to your note to reconnect any cables of the PCIe adapters on the riser card. Or you can
refer to the Chapter 3 “Internal cable routing” on page 53 and locate the cable routing information
for your configuration options.
Demo video
Procedure
Step 2. Press the release latch 1 and rotate the security bezel outward to remove it from the chassis.
Attention: Before you ship the rack with the server installed, reinstall and lock the security bezel
into place.
Procedure
Step 1. If you have removed the rack latches, reinstall them. See “Install the rack latches” on page 192.
Step 2. If the key is held inside the security bezel, remove it out of the security bezel.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Disconnect the cable of the serial port module from the system board.
a. Pinch two side clips to release the connector.
b. Disengage the connector from the cable socket.
Note: Failing to release clips before removing the cables will damage the cable sockets on the
system board. Any damage to the cable sockets might require replacing the system board.
Step 4. Open the retention latch and remove the serial port module from the riser bracket.
Step 5. (Optional) If you need to replace the serial port bracket, use a 5 mm wrench to disassemble the
serial port cable from the bracket.
1. Install a new serial port module, a PCIe adapter, or a PCIe slot bracket to cover the place. See “Install a
serial port module” on page 219 and “Install a PCIe adapter” on page 179.
2. If you are instructed to return the old serial port module, follow all packaging instructions and use any
packaging materials that are provided.
Procedure
Step 1. Touch the static-protective package that contains the component to any unpainted surface on the
outside of the server. Then, take the component out of the package and place it on a static-
protective surface.
Step 2. Use a 5 mm wrench to install the serial port cable into the bracket.
b. Tighten two screws to ensure that the connector is securely installed to the bracket.
Step 5. Connect the cable of the serial port module to the serial-port-module connector on the system
board. For the location of the serial-port-module connector, refer to “System board components”
on page 44.
1. Complete the parts replacement. See “Complete the parts replacement” on page 235.
2. To enable the serial port module, do one of the following according to the installed operating system:
• For Linux operating system:
Open the ipmitool and enter the following command to disable the Serial over LAN (SOL) feature:
-I lanplus -H IP -U USERID -P PASSW0RD sol deactivate
• For Microsoft Windows operating system:
a. Open the ipmitool and enter the following command to disable the SOL feature:
-I lanplus -H IP -U USERID -P PASSW0RD sol deactivate
b. Open Windows PowerShell and enter the following command to disable the Emergency
Management Services (EMS) feature:
Bcdedit /ems no
c. Restart the server to ensure that the EMS setting takes effect.
CAUTION:
Hazardous energy present. Voltages with hazardous energy might cause heating when shorted with
metal, which might result in spattered metal, burns, or both.
S017
CAUTION:
Hazardous moving fan blades nearby. Keep fingers and other body parts away.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Remove the top cover. See “Remove the top cover” on page 232.
Step 2. Grasp the fan tabs on both ends of the system fan and carefully lift the system fan out of the server.
Demo video
S033
CAUTION:
Hazardous energy present. Voltages with hazardous energy might cause heating when shorted with
metal, which might result in spattered metal, burns, or both.
S017
CAUTION:
Hazardous moving fan blades nearby. Keep fingers and other body parts away.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Touch the static-protective package that contains the system fan to any unpainted surface on the
outside of the server. Then, take the system fan out of the package and place it on a static-
protective surface.
Note: Ensure that fan installation meets “Technical rules for system fans” on page 109.
Demo video
S017
CAUTION:
Hazardous moving fan blades nearby. Keep fingers and other body parts away.
S012
CAUTION:
A system board, also known as the motherboard, provides different connectors or slots to connect different
components or peripherals of the system for communication. If the system board fails, it must be replaced.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. Prepare your server.
a. Remove the top cover. See “Remove the top cover” on page 232.
b. If your server comes with an air baffle, remove it first. See “Remove the air baffle” on page 111.
c. If your server comes with a rear drive assembly, remove it first. See “Remove the rear drive
assembly” on page 204.
d. Record where the cables are connected to the system board; then, disconnect all the cables.
Attention: Disengage all latches, cable clips, release tabs, or locks on cable connectors
beforehand. Failing to release them before removing the cables will damage the cable
connectors on the system board. Any damage to the cable connectors may require replacing
the system board.
e. Remove any of the following components that are installed on the system board and put them
in a safe, static-protective place.
• “Processor and heat sink” on page 180
• “Memory modules” on page 165
• “System fans” on page 220
• “RAID flash power modules” on page 194
• “Riser assemblies” on page 209
• “CMOS battery” on page 128
• “OCP 3.0 Ethernet adapter” on page 175
f. Pull out the power supplies slightly. Ensure that they are disconnected from the system board.
a. Hold the lift handle 1 and lift the release pin 2 at the same time and slide the system board
toward the front of the server.
b. Lift the system board out of the chassis.
Important: Before you return the system board, make sure that the CPU socket is covered. There is a CPU
external cap covering the CPU socket on the new system board. Slide the CPU external cap out from the
CPU socket on the new system board, and install the external cap on the CPU socket on the removed
system board.
If you are planning to recycle the system board, follow the instructions in Appendix A “Hardware
disassembling for recycle” on page 263 for compliance with local regulations.
Demo video
Procedure
Step 1. Touch the static-protective package that contains the system board to any unpainted surface on
the outside of the server. Then, take the system board out of the package and place it on a static-
protective surface.
Step 2. Install the system board to the server.
a. Hold the lift handle 1 and the release pin 2 at the same time to lower the system board into
the chassis.
b. Slide the system board to the rear of the server until the system board snaps into position.
Ensure that:
• The new system board is engaged by the locating pin 3 on the chassis.
• The rear connectors on the new system board are inserted into the corresponding holes in
the rear panel.
• The release pin 2 secures the system board in place.
1. Install any components that you have removed from the failing system board.
• “Processor and heat sink” on page 180
• “Memory modules” on page 165
• “System fans” on page 220
• “RAID flash power modules” on page 194
Demo video
There are two methods available to update the machine type and serial number:
• From Lenovo XClarity Provisioning Manager
To update the machine type and serial number from Lenovo XClarity Provisioning Manager:
1. Start the server and press the key according to the on-screen instructions to display the Lenovo
XClarity Provisioning Manager interface.
2. If the power-on Administrator password is required, enter the password.
3. From the System Summary page, click Update VPD.
4. Update the machine type and serial number.
• From Lenovo XClarity Essentials OneCLI
Lenovo XClarity Essentials OneCLI sets the machine type and serial number in the Lenovo XClarity
Controller. Select one of the following methods to access the Lenovo XClarity Controller and set the
machine type and serial number:
– Operate from the target system, such as LAN or keyboard console style (KCS) access
– Remote access to the target system (TCP/IP based)
To update the machine type and serial number from Lenovo XClarity Essentials OneCLI:
1. Download and install Lenovo XClarity Essentials OneCLI.
To download Lenovo XClarity Essentials OneCLI, go to the following site:
https://datacentersupport.lenovo.com/solutions/HT116433
2. Copy and unpack the OneCLI package, which also includes other required files, to the server. Make
sure that you unpack the OneCLI and the required files to the same directory.
Where:
<m/t_model>
The server machine type and model number. Type mtm xxxxyyy, where xxxx is the machine type
and yyy is the server model number.
<s/n>
The serial number on the server. Type sn zzzzzzz, where zzzzzzz is the serial number.
[access_method]
The access method that you select to use from the following methods:
Where:
xcc_user_id
The BMC/IMM/XCC account name (1 of 12 accounts). The default value is USERID.
xcc_password
The BMC/IMM/XCC account password (1 of 12 accounts).
Example commands are as follows:
onecli config set SYSTEM_PROD_DATA.SysInfoProdName <m/t_model> --bmc-username <xcc_user_id>
--bmc-password <xcc_password>
onecli config set SYSTEM_PROD_DATA.SysInfoSerialNum <s/n> --bmc-username <xcc_user_id> --bmc-
password <xcc_password>
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifier <system model> --bmc-username xcc_user_
id --bmc-password xcc_password
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifierEx <system model> --override --bmc-
username xcc_user_id --bmc-password xcc_password
– Online KCS access (unauthenticated and user restricted):
You do not need to specify a value for access_method when you use this access method.
Example commands are as follows:
onecli config set SYSTEM_PROD_DATA.SysInfoProdName <m/t_model>
onecli config set SYSTEM_PROD_DATA.SysInfoSerialNum <s/n>
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifier <system model>
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifierEx <system model> --override
Note: The KCS access method uses the IPMI/KCS interface, which requires that the IPMI
driver be installed.
– Remote LAN access, type the command:
[−−bmc <xcc_user_id>:<xcc_password>@<xcc_external_ip>]
Where:
xcc_external_ip
The BMC/IMM/XCC IP address. There is no default value. This parameter is required.
xcc_user_id
The BMC/IMM/XCC account (1 of 12 accounts). The default value is USERID.
Note: BMC, IMM, or XCC internal LAN/USB IP address, account name, and password are all
valid for this command.
Example commands are as follows: Example commands are as follows:
onecli config set SYSTEM_PROD_DATA.SysInfoProdName <m/t_model> −−bmc <xcc_user_id>:<xcc_
password>@<xcc_external_ip>
onecli config set SYSTEM_PROD_DATA.SysInfoSerialNum <s/n> −−bmc <xcc_user_id>:<xcc_
password>@<xcc_external_ip>
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifier <system model> −−bmc xcc_user_id:xcc_
password@xcc_external_ip
onecli config set SYSTEM_PROD_DATA.SysInfoProdIdentifierEx <system model> --override −−bmc xcc_
user_id:xcc_password@xcc_external_ip
4. Reset the Lenovo XClarity Controller to the factory defaults. See “Resetting the BMC to Factory
Default” section in the XCC documentation compatible with your server at https://pubs.lenovo.com/
lxcc-overview/.
Enable TPM
The server supports Trusted Platform Module (TPM) of version 2.0.
Note: For customers in the Chinese Mainland, integrated TPM is not supported. However, customers in the
Chinese Mainland can install a TPM adapter (sometimes called a daughter card), only version 2.0 is available.
When a system board is replaced, you must make sure that the TPM policy is set correctly.
CAUTION:
Take special care when setting the TPM policy. If it is not set correctly, the system board can become
unusable.
Note: Although the setting undefined is available as a policy setting, it should not be used.
• From Lenovo XClarity Essentials OneCLI
Notes:
– If the read back value is matched it means the TPM_TCM_POLICY has been set correctly.
imm.TpmTcmPolicy is defined as below:
– Value 0 use string “Undefined” , which means UNDEFINED policy.
– Value 1 use string “NeitherTpmNorTcm”, which means TPM_PERM_DISABLED.
– Value 2 use string “TpmOnly”, which means TPM_ALLOWED.
– Value 4 use string “NationZTPM20Only”, which means NationZ_TPM20_ALLOWED.
– Below 4 steps must also be used to ‘lock’ the TPM_TCM_POLICY when using OneCli/ASU
commands:
5. Read TpmTcmPolicyLock to check whether the TPM_TCM_POLICY has been locked , command as
below:
OneCli.exe config show imm.TpmTcmPolicyLock --override --imm <userid>:<password>@<ip_address>
The value must be 'Disabled', it means TPM_TCM_POLICY is NOT locked and must be set.
6. Lock the TPM_TCM_POLICY:
OneCli.exe config set imm.TpmTcmPolicyLock "Enabled" --override --imm <userid>:<password>@<ip_address>
7. Issue reset command to reset system, command as below:
OneCli.exe misc ospower reboot --imm <userid>:<password>@<ip_address>
During the reset, UEFI will read the value from imm.TpmTcmPolicyLock, if the value is 'Enabled' and
the imm.TpmTcmPolicy value is valid, UEFI will lock the TPM_TCM_POLICY setting.
Note: The valid values for imm.TpmTcmPolicy include 'NeitherTpmNorTcm', 'TpmOnly', and
'NationZTPM20Only'.
Note: If the read back value is changed from 'Disabled' to 'Enabled' that means the TPM_TCM_
POLICY has been locked successfully. There is no method to unlock a policy once it has been set
other than replacing system board.
imm.TpmTcmPolicyLock is defined as below:
Value 1 uses string “Enabled" , which means lock the policy. Other values are not accepted.
where:
– <userid>:<password> are the credentials used to access the BMC (Lenovo XClarity Controller
interface) of your server. The default user ID is USERID, and the default password is PASSW0RD
(zero, not an uppercase o).
– <ip_address> is the IP address of the BMC.
For more information about the Lenovo XClarity Essentials OneCLI set command, see:
https://pubs.lenovo.com/lxce-onecli/onecli_r_set_command
Note: If disabling UEFI secure boot is needed, run the following command:
OneCli.exe config set SecureBootConfiguration.SecureBootSetting Disabled --bmc <userid>:<password>@<ip_
address>
S033
CAUTION:
Hazardous energy present. Voltages with hazardous energy might cause heating when shorted with
metal, which might result in spattered metal, burns, or both.
S014
CAUTION:
Hazardous voltage, current, and energy levels might be present. Only a qualified service technician is
authorized to remove the covers where the label is attached.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Procedure
Step 1. If the server is installed in a rack, remove the server from the rack. See the Rack Installation Guide
that comes with the rail kit for your server.
Attention: Handle the top cover carefully. Dropping the top cover with the cover latch open might
damage the cover latch.
a. Use a screwdriver to turn the cover lock to the unlocked position as shown.
b. Press the release button on the cover latch. The cover latch then gets released to some
extent.
c. Fully open the cover latch as shown.
d. Slide the top cover to the rear until it is disengaged from the chassis. Then, lift the top cover
off the chassis and place the top cover on a flat clean surface.
Replace any options as required or install a new top cover. See “Install the top cover” on page 233.
Demo video
S033
S014
CAUTION:
Hazardous voltage, current, and energy levels might be present. Only a qualified service technician is
authorized to remove the covers where the label is attached.
Attention:
• Read “Installation guidelines” on page 85 to ensure that you work safely.
• Power off the server and disconnect all power cords for this task.
• Prevent exposure to static electricity, which might lead to system halt and loss of data, by keeping static-
sensitive components in their static-protective packages until installation, and handling these devices with
an electrostatic-discharge wrist strap or other grounding system.
Operating the server with the top cover removed might damage server components. For proper cooling and
airflow, install the top cover before you turn on the server.
Note: A new top cover comes without a service label attached. If you need a service label, order it together
with the new top cover and attach the service label to the new top cover first.
Procedure
Step 1. Check your server and ensure that:
• All cables, adapters, and other components are installed and seated correctly and that you have
not left loose tools or parts inside the server.
• All internal cables are connected and routed correctly. See Chapter 3 “Internal cable routing” on
page 53.
Attention: Handle the top cover carefully. Dropping the top cover with the cover latch open might
damage the cover latch.
a. Ensure that the cover latch is in the open position. Lower the top cover onto the chassis
until both sides of the top cover engage the guides on both sides of the chassis. Then, slide
the top cover to the front of the chassis.
Note: Before you slide the top cover forward, ensure that all the tabs on the top cover engage
the chassis correctly.
b. Press down the cover latch and ensure that the cover latch is completely closed.
Demo video
Lenovo servers can be configured to automatically notify Lenovo Support if certain events are generated.
You can configure automatic notification, also known as Call Home, from management applications, such as
the Lenovo XClarity Administrator. You may also configure Call Home from Lenovo XClarity Controller. Using
the Call Home function, you can create a service forwarder that automatically sends service data for any
managed device to Lenovo Support.
To isolate a problem, you should typically begin with the event log of the application that is managing the
server:
• If you are managing the server from the Lenovo XClarity Administrator, begin with the Lenovo XClarity
Administrator event log.
• If you are using some other management application, begin with the Lenovo XClarity Controller event log.
Event logs
An alert is a message or other indication that signals an event or an impending event. Alerts are generated by
the Lenovo XClarity Controller or by UEFI in the servers. These alerts are stored in the Lenovo XClarity
Controller Event Log.
Note: For a listing of events, including user actions that might need to be performed to recover from an
event, see the Messages and Codes Reference, which is available at:
https://thinksystem.lenovofiles.com/help/topic/SR630V2/pdf_files.html
For more information about working with events from XClarity Administrator, see:
http://sysmgt.lenovofiles.com/help/topic/com.lenovo.lxca.doc/events_vieweventlog.html
The Lenovo XClarity Controller monitors all components of the server and posts events in the Lenovo
XClarity Controller event log.
For more information about accessing the Lenovo XClarity Controller event log, see:
If you are not sure about the cause of a problem and the power supplies are working correctly, complete the
following steps to attempt to resolve the problem:
1. Power off the server.
2. Make sure that the server is cabled correctly.
3. Remove or disconnect the following devices if applicable, one at a time, until you find the failure. Power
on and configure the server each time you remove or disconnect a device.
• Any external devices.
• Surge-suppressor device (on the server).
• Printer, mouse, and non-Lenovo devices.
• Each adapter.
• Hard disk drives.
• Memory modules until you reach the minimum configuration that is supported for the server.
See “Specifications” on page 2 to determine the minimum configuration for your server.
Note: The minimum configuration required for the server to start is one processor and one 2 GB DIMM.
4. Power on the server.
If the problem is solved when you remove an adapter from the server, but the problem recurs when you
install the same adapter again, suspect the adapter. If the problem recurs when you replace the adapter with
a different one, try a different PCIe slot.
If the problem appears to be a networking problem and the server passes all system tests, suspect a network
cabling problem that is external to the server.
Complete the following steps to diagnose and resolve a suspected power problem.
Note: Start with the event log of the application that is managing the server. For more information
about event logs, see “Event logs” on page 237.
Step 2. Check for short circuits, for example, if a loose screw is causing a short circuit on a circuit board.
Step 3. Remove the adapters and disconnect the cables and power cords to all internal and external
devices until the server is at the minimum configuration that is required for the server to start. See
“Specifications” on page 2 to determine the minimum configuration for your server.
Step 4. Reconnect all ac power cords and turn on the server. If the server starts successfully, reseat the
adapters and devices one at a time until the problem is isolated.
If the server does not start from the minimum configuration, replace the components in the minimum
configuration one at a time until the problem is isolated.
Complete the following steps to attempt to resolve suspected problems with the Ethernet controller.
Step 1. Make sure that the correct device drivers, which come with the server are installed and that they
are at the latest level.
Step 2. Make sure that the Ethernet cable is installed correctly.
• The cable must be securely attached at all connections. If the cable is attached but the problem
remains, try a different cable.
• If you set the Ethernet controller to operate at 100 Mbps or 1000 Mbps, you must use Category
5 cabling.
Step 3. Determine whether a hub is installed in the network environment. If yes, use direct connection from
a server adapter port to a laptop to clarify the network issue. If the network environment is for
unique fiber channel connectors (such as SFP+ and QSFP), use another known good server for
direct connection to clarify the issue first.
Step 4. Check the Ethernet controller LEDs on the rear panel of the server. These LEDs indicate whether
there is a problem with the connector, cable, or hub.
• The Ethernet link status LED is lit when the Ethernet controller receives a link pulse from the hub.
If the LED is off, there might be a defective connector or cable or a problem with the hub.
• The Ethernet transmit/receive activity LED is lit when the Ethernet controller sends or receives
data over the Ethernet network. If the Ethernet transmit/receive activity is off, make sure that the
hub and network are operating and that the correct device drivers are installed.
Step 5. Check the Network activity LED on the rear of the server. The Network activity LED is lit when data
is active on the Ethernet network. If the Network activity LED is off, make sure that the hub and
network are operating and that the correct device drivers are installed.
Step 6. Check for operating-system-specific causes of the problem, and also make sure that the operating
system drivers are installed correctly.
Step 7. Make sure that the device drivers on the client and server are using the same protocol.
If the Ethernet controller still cannot connect to the network but the hardware appears to be working, the
network administrator must investigate other possible causes of the error.
To use the symptom-based troubleshooting information in this section, complete the following steps:
1. Check the event log of Lenovo XClarity Controller and follow the suggested actions to resolve any event
codes.
For more information about event logs, see “Event logs” on page 237)
2. Review this section to find the symptoms that you are experiencing and follow the suggested actions to
resolve the issue.
3. If the problem persists, contact support (see “Contacting Support” on page 267).
Server does not power on (no indication that input power is connected to the server)
Complete the following steps until the problem is resolved:
1. Check the event log for any events related to the server not powering on.
2. Check for any LEDs that are flashing amber.
3. Check the power LED on the front operator panel.
4. Check the front operator panel LCD display for error indications.
5. Check the power supply LEDs and ensure that the power supplies are functioning:
a. Make sure that both power supplies installed in the server are of the same type. Mixing different
power supplies in the server will cause a system error.
b. Make sure that the power cords are correctly connected to a working electrical outlet. The power
source meets the input power requirements for the installed power supplies (see the power supply
labels).
c. Disconnect and reconnect the input power cords.
d. Reseat the power supplies.
e. Replace the power supplies one by one, and check the power button function after installing each
one.
6. If the problem still cannot be resolved, collect the failure information with system logs captured to
Lenovo support.
Memory problems
See this section to resolve issues related to memory.
• “Displayed system memory is less than installed physical memory” on page 244
• “Multiple memory modules in a channel identified as failing” on page 245
• “Attempt to change to another PMEM mode fails” on page 245
• “Extra namespace appears in an interleaved region” on page 245
• “Migrated PMEMs are not supported” on page 245
• “Invalid memory population detected” on page 246
• “PMEMs installed in wrong slots after system board replacement” on page 246
• “After PMEMs are reconfigured, error messages and LEDs persist to indicate PMEMs are installed in
wrong slots” on page 247
• “Cannot create goal successfully when installing PMEMs to the system for the first time” on page 247
Note: Each time you install or remove a memory module, you must disconnect the server from the power
source; then, wait 10 seconds before restarting the server.
1. Make sure that:
• No error LEDs are lit on the operator information panel.
• No memory module error LEDs are lit on the system board.
• Memory mirrored channel does not account for the discrepancy.
• The memory modules are seated correctly.
• You have installed the correct type of memory module (see “PMEM rules” in Setup Guide for
requirements).
• After changing or replacing a memory module, memory configuration is updated accordingly in the
Setup Utility.
• All banks of memory are enabled. The server might have automatically disabled a memory bank when
it detected a problem, or a memory bank might have been manually disabled.
• There is no memory mismatch when the server is at the minimum memory configuration.
• When PMEMs are installed:
a. Refer to “PMEM rules” in Setup Guide and see if the displayed memory fits the mode description.
b. If the memory is set in App Direct Mode, all the saved data have been backed up, and created
namespaces are deleted before any PMEM is replaced or added.
c. If PMEMs are recently set in Memory Mode, turn it back to App Direct Mode and examine if there
is namespace that has not been deleted.
d. Go to the Setup Utility, select System Configuration and Boot Management ➙ Intel Optane
PMEMs ➙ Security, and make sure security of all the PMEM units is disabled.
2. Reseat the memory modules, and then restart the server.
3. Check the POST error log:
• If a memory module was disabled by a systems-management interrupt (SMI), replace the memory
module.
• If a memory module was disabled by the user or by POST, reseat the memory module; then, run the
Setup Utility and enable the memory module.
4. Run memory diagnostics. When you start a solution and press F1, the LXPM interface is displayed by
default. (For more information, see the “Startup” section in the LXPM documentation compatible with
your server at https://pubs.lenovo.com/lxpm-overview/.) You can perform memory diagnostics with this
interface. From the Diagnostic page, go to Run Diagnostic ➙ Memory test or PMEM test.
Notes: When PMEMs are installed, run diagnostics based on the mode that is set presently:
• App Direct Mode:
– Run Memory Test for DRAM memory modules.
– Run PMEM Test for PMEMs.
• Memory Mode:
Run both Memory Test and PMEM Test for PMEMs.
5. Reverse the modules between the channels (of the same processor), and then restart the server. If the
problem is related to a memory module, replace the failing memory module.
Notes: See the following links to learn how to download and use impctl in different operating systems:
• Windows: https://datacentersupport.lenovo.com/us/en/videos/YTV101407
• Linux: https://datacentersupport.lenovo.com/us/en/solutions/HT508642
6. Start the server and press the key specified in the on-screen instructions. (For more information, see the
“Startup” section in the LXPM documentation compatible with your server at https://pubs.lenovo.com/
lxpm-overview/.) The Lenovo XClarity Provisioning Manager interface is displayed by default.
7. Power off the system.
8. Remove the modules to be reused for a new system or configuration.
Note: Do not perform any provisioning on PMEM to avoid data lost when the messages are still present in
XCC events.
Cannot create goal successfully when installing PMEMs to the system for the first time
When seeing ones of the following messages:
• ERROR: Cannot retrieve memory resources info
• ERROR: One or more PMEM modules do not have PCD data. A platform reboot is recommended to
restore valid PCD data.
Complete the following steps to solve the problem.
1. If the PMEMs have been installed in another system with stored data, perform the following steps to
erase the data.
a. Based on the original population order, install the PMEMs to the original system where they were
installed previously, and back up the data from the PMEMs to other storage devices.
b. Disable PMEM security with one of the following options:
• LXPM
Go to UEFI Setup ➙ System Settings ➙ Intel Optane PMEMs ➙ Security ➙ Press to Disable
Security, and input passphrase to disable security.
• Setup Utility
Go to System Configuration and Boot Management ➙ System Settings ➙ Intel Optane
PMEMs ➙ Security ➙ Press to Disable Security, and input passphrase to disable security.
c. Delete namespaces with command corresponding to the operating system that is installed:
• Linux command:
ndctl destroy-namespace all -f
• Windows Powershell command
Get-PmemDisk | Remove-PmemDisk
d. Clear Platform Configuration Data (PCD) and Namespace Label Storage Area (LSA) with the following
ipmctl command (for both Linux and Windows).
ipmctl delete -pcd
Notes: See the following links to learn how to download and use impctl in different operating
systems:
• Windows: https://datacentersupport.lenovo.com/us/en/videos/YTV101407
• Linux: https://datacentersupport.lenovo.com/us/en/solutions/HT508642
2. Install the PMEMs back to the target system, and upgrade system firmware to the latest version without
entering Setup Utility.
3. If the problem persists, overwrite PMEMs with the following ndctl command.
ndctl sanitize-dimm --overwrite all
4. Monitor the overwrite status with the following command.
watch -n 1 “ipmctl show -d OverwriteStatus -dimm”
5. When seeing all PMEM OverwriteStatus=Completed, reboot the system and see if the problem persists.
Important: Some cluster solutions require specific code levels or coordinated code updates. If the device is
part of a cluster solution, verify that the latest level of code is supported for the cluster solution before you
update the code.
Green drive activity LED does not represent actual state of associated drive
Complete the following steps until the problem is solved:
1. If the green hard disk drive activity LED does not flash when the drive is in use, run the diagnostics tests
for the hard disk drives. When you start a server and press the key according to the on-screen
instructions, the LXPM is displayed by default. (For more information, see the “Startup” section in the
LXPM documentation compatible with your server at https://pubs.lenovo.com/lxpm-overview/.) You can
perform hard drive diagnostics from this interface. From the Diagnostic page, click Run Diagnostic ➙
HDD test/Disk Drive Test.*
2. If the drive passes the test, replace the backplane.
3. If the drive fails the test, replace the drive.
Yellow drive activity LED does not represent actual state of associated drive
Complete the following steps until the problem is solved:
Note: * Depending on the LXPM version, you may see HDD test or Disk Drive Test.
U.3 NVMe drive can be detected in NVMe connection, but cannot be detected in Tri-mode
In Tri-mode, NVMe drives are connected via a PCIe x1 link to the controller. To support Tri-mode with U.3
NVMe drives, U.3 x1 mode must be enabled for the selected drive slots on the backplane through the XCC
Web GUI. By default, the backplane setting is U.2 x4 mode.
Screen is blank
Note: Make sure that the expected boot mode has not been changed from the UEFI to Legacy or vice versa.
1. If the server is attached to a KVM switch, bypass the KVM switch to eliminate it as a possible cause of
the problem: connect the monitor cable directly to the correct connector on the rear of the server.
2. If the server is installed with the graphical adapters while turning on the server, the Lenovo logo is
displayed on the screen after approximately 3 minutes. This is normal operation while the system loads.
3. Make sure that:
• The server is turned on and there is power supplied to the server.
• The monitor cables are connected correctly.
• The monitor is turned on and the brightness and contrast controls are adjusted correctly.
4. Make sure that the correct server is controlling the monitor, if applicable.
5. Make sure that the video output is not affected by corrupted server firmware; see “Firmware updates”
on page 12.
6. If the problem remains, contact Lenovo Support.
The monitor has screen jitter, or the screen image is wavy, unreadable, rolling, or distorted
1. If the monitor self-tests show that the monitor is working correctly, consider the location of the monitor.
Magnetic fields around other devices (such as transformers, appliances, fluorescents, and other
monitors) can cause screen jitter or wavy, unreadable, rolling, or distorted screen images. If this
happens, turn off the monitor.
Move the device and the monitor at least 305 mm (12 in.) apart, and turn on the monitor.
Notes:
a. To prevent diskette drive read/write errors, make sure that the distance between the monitor and any
external diskette drive is at least 76 mm (3 in.).
b. Non-Lenovo monitor cables might cause unpredictable problems.
2. Reseat the monitor cable.
3. Replace the components listed in step 2 one at a time, in the order shown, restarting the server each
time:
a. Monitor cable
b. Video adapter (if one is installed)
c. Monitor
d. (Trained technician only) System board.
Optional-device problems
Use this information to solve problems related to optional devices.
Note: Ensure that you modify the ROM boot order associated with the PCIe adapter to the first
execution order.
7. Check http://datacentersupport.lenovo.com for any tech tips (also known as retain tips or service
bulletins) that might be related to the adapter.
8. Ensure any adapter external connections are correct and that the connectors are not physically
damaged.
9. Make sure that the PCIe adapter is installed with the supported operating system.
A Lenovo optional device that was just installed does not work.
1. Check the XCC event log for any events associated with the device.
2. Make sure that:
• The device is supported for the server (see https://serverproven.lenovo.com/).
• You followed the installation instructions that came with the device and the device is installed
correctly.
• You have not loosened any other installed devices or cables.
• You updated the configuration information in system setup. Start the server and press the key
specified in the on-screen instructions. (For more information, see the “Startup” section in the LXPM
documentation compatible with your server at https://pubs.lenovo.com/lxpm-overview/.)
3. Reseat the cable connection and ensure that there is no physical damage to the cable.
4. Reseat the device that you have just installed.
5. Replace the device that you have just installed.
Serial-device problems
Use this information to solve problems with serial ports or devices.
• “Number of displayed serial ports is less than the number of installed serial ports” on page 255
• “Serial device does not work” on page 255
Number of displayed serial ports is less than the number of installed serial ports
Complete the following steps until the problem is solved.
1. Make sure that:
• Each port is assigned a unique address in the Setup utility and none of the serial ports is disabled.
• The serial-port adapter (if one is present) is seated correctly.
2. Reseat the serial port adapter.
3. Replace the serial port adapter.
Intermittent problems
Use this information to solve intermittent problems.
Video problems:
1. Make sure that all cables and the console breakout cable are properly connected and secure.
2. Make sure that the monitor is working properly by testing it on another server.
3. Test the console breakout cable on a working server to ensure that it is operating properly. Replace the
console breakout cable if it is defective.
Keyboard problems:
Make sure that all cables and the console breakout cable are properly connected and secure.
Mouse problems:
Make sure that all cables and the console breakout cable are properly connected and secure.
System error LED is on and event log "Power supply has lost input" is displayed
To resolve the problem, ensure that:
1. The power supply is properly connected to a power cord.
2. The power cord is connected to a properly grounded electrical outlet for the server.
3. Make sure that the power supply AC source is stable within the supported range.
4. Swap the power supply to see if the issue follows the power supply, if it follows the power supply, then
replace the failing one.
5. Review the event log and see how the problem it is to follow the event log actions to resolved the
problems.
Network problems
Use this information to resolve issues related to networking.
Observable problems
Use this information to solve observable problems.
To recover a system that hangs during the boot process with Legacy Option ROM settings, see the following
Tech Tip:
https://datacentersupport.lenovo.com/us/en/solutions/ht506118
If legacy Option ROMs must be used, do not set slot Option ROMs to Legacy on the Devices and I/O Ports
menu. Instead, set slot Option ROMs to Auto (the default setting), and set the System Boot Mode to Legacy
Mode. Legacy option ROMs will be invoked shortly before the system boots.
The server immediately displays the POST Event Viewer when it is turned on
Complete the following steps until the problem is solved.
1. Correct any errors that are indicated by the light path diagnostics LEDs.
2. Make sure that the server supports all the processors and that the processors match in speed and
cache size.
You can view processor details from system setup.
To determine if the processor is supported for the server, see https://serverproven.lenovo.com/.
3. (Trained technician only) Make sure that processor 1 is seated correctly
4. (Trained technician only) Remove processor 2 and restart the server.
5. Replace the following components one at a time, in the order shown, restarting the server each time:
a. (Trained technician only) Processor
b. (Trained technician only) System board
After a specified number of consecutive attempts (automatic or manual), the server reverts to the default
UEFI configuration and starts System Setup so that you can make the necessary corrections to the
configuration and restart the server. If the server is unable to successfully complete POST with the default
configuration, there might be a problem with the system board.
You can specify the number of consecutive restart attempts in System Setup. Start the server and press the
key specified in the on-screen instructions. (For more information, see the “Startup” section in the LXPM
documentation compatible with your server at https://pubs.lenovo.com/lxpm-overview/.) Then, click System
Settings ➙ Recovery and RAS ➙ POST Attempts ➙ POST Attempts Limit. Available options are 3, 6, 9,
and disable.
If the issue cannot be resolved by the actions mentioned above, call the service team to review the issue
symptom and confirm whether the system board replacement is necessary.
Unusual smell
Complete the following steps until the problem is solved.
1. An unusual smell might be coming from newly installed equipment.
2. If the problem remains, contact Lenovo Support.
Note: The IPMI raw command should only be used by trained technician and the each system has its
own specific PMI raw command.
6. Check the management processor event log for rising temperature events. If there are no events, the
compute node is running within normal operating temperatures. Note that you can expect some
variation in temperature.
Software problems
Use this information to solve software problems.
1. To determine whether the problem is caused by the software, make sure that:
• The server has the minimum memory that is needed to use the software. For memory requirements,
see the information that comes with the software.
Note: If you have just installed an adapter or memory, the server might have a memory-address
conflict.
• The software is designed to operate on the server.
• Other software works on the server.
• The software works on another server.
2. If you receive any error messages while you use the software, see the information that comes with the
software for a description of the messages and suggested solutions to the problem.
3. Contact your place of purchase of the software.
1. Remove the system board from the server (see “Remove the system board” on page 224).
2. Refer to local environmental, waste or disposal regulations to ensure compliance.
Note: Component 2 (PSU airduct) is available only when the CPU TDP is greater than 125 W.
After disassembling the system board, comply with local regulations when recycling.
On the World Wide Web, up-to-date information about Lenovo systems, optional devices, services, and
support are available at:
http://datacentersupport.lenovo.com
Note: This section includes references to IBM Web sites and information about obtaining service. IBM is
Lenovo's preferred service provider for ThinkSystem.
You can find the product documentation for your ThinkSystem products at https://pubs.lenovo.com/
You can take these steps to try to solve the problem yourself:
• Check all cables to make sure that they are connected.
• Check the power switches to make sure that the system and any optional devices are turned on.
• Check for updated software, firmware, and operating-system device drivers for your Lenovo product. The
Lenovo Warranty terms and conditions state that you, the owner of the Lenovo product, are responsible
for maintaining and updating all software and firmware for the product (unless it is covered by an
additional maintenance contract). Your service technician will request that you upgrade your software and
firmware if the problem has a documented solution within a software upgrade.
• If you have installed new hardware or software in your environment, check https://
serverproven.lenovo.com/ to make sure that the hardware and software are supported by your product.
• Go to http://datacentersupport.lenovo.com and check for information to help you solve the problem.
– Check the Lenovo forums at https://forums.lenovo.com/t5/Datacenter-Systems/ct-p/sv_eg to see if
someone else has encountered a similar problem.
Contacting Support
You can contact Support to obtain help for your issue.
You can receive hardware service through a Lenovo Authorized Service Provider. To locate a service
provider authorized by Lenovo to provide warranty service, go to https://datacentersupport.lenovo.com/
serviceprovider and use filter searching for different countries. For Lenovo support telephone numbers, see
https://datacentersupport.lenovo.com/supportphonelist for your region support details.
Any reference to a Lenovo product, program, or service is not intended to state or imply that only that
Lenovo product, program, or service may be used. Any functionally equivalent product, program, or service
that does not infringe any Lenovo intellectual property right may be used instead. However, it is the user's
responsibility to evaluate and verify the operation of any other product, program, or service.
Lenovo may have patents or pending patent applications covering subject matter described in this
document. The furnishing of this document is not an offer and does not provide a license under any patents
or patent applications. You can send inquiries in writing to the following:
Lenovo (United States), Inc.
8001 Development Drive
Morrisville, NC 27560
U.S.A.
Attention: Lenovo Director of Licensing
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This information could include technical inaccuracies or typographical errors. Changes are periodically made
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make improvements and/or changes in the product(s) and/or the program(s) described in this publication at
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The products described in this document are not intended for use in implantation or other life support
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shall operate as an express or implied license or indemnity under the intellectual property rights of Lenovo or
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Any performance data contained herein was determined in a controlled environment. Therefore, the result
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Important notes
Processor speed indicates the internal clock speed of the microprocessor; other factors also affect
application performance.
CD or DVD drive speed is the variable read rate. Actual speeds vary and are often less than the possible
maximum.
When referring to processor storage, real and virtual storage, or channel volume, KB stands for 1 024 bytes,
MB stands for 1 048 576 bytes, and GB stands for 1 073 741 824 bytes.
When referring to hard disk drive capacity or communications volume, MB stands for 1 000 000 bytes, and
GB stands for 1 000 000 000 bytes. Total user-accessible capacity can vary depending on operating
environments.
Maximum internal hard disk drive capacities assume the replacement of any standard hard disk drives and
population of all hard-disk-drive bays with the largest currently supported drives that are available from
Lenovo.
Maximum memory might require replacement of the standard memory with an optional memory module.
Each solid-state memory cell has an intrinsic, finite number of write cycles that the cell can incur. Therefore, a
solid-state device has a maximum number of write cycles that it can be subjected to, expressed as total
bytes written (TBW). A device that has exceeded this limit might fail to respond to system-generated
commands or might be incapable of being written to. Lenovo is not responsible for replacement of a device
that has exceeded its maximum guaranteed number of program/erase cycles, as documented in the Official
Published Specifications for the device.
Lenovo makes no representations or warranties with respect to non-Lenovo products. Support (if any) for the
non-Lenovo products is provided by the third party, not Lenovo.
Some software might differ from its retail version (if available) and might not include user manuals or all
program functionality.
https://pubs.lenovo.com/important_notices/