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This document describes the appearance, features, and specifications of the 5288 V3 and
explains how to install and remove the server and its parts, power on and off, configure, and
troubleshoot the server.
Read this document before operating the 5288 V3.
Intended Audience
This document is intended for:
lTechnical support engineers
lMaintenance engineers
Symbol Conventions
The symbols that may be found in this document are defined as follows.
Symbol
Description
Indicates an imminently hazardous situation which, if
not avoided, will result in death or serious injury.
Indicates a potentially hazardous situation which, if not
avoided, could result in death or serious injury.
Indicates a potentially hazardous situation which, if not
avoided, may result in minor or moderate injury.
Indicates a potentially hazardous situation which, if not
avoided, could result in equipment damage, data loss,
performance deterioration, or unanticipated results.
NOTICE is used to address practices not related to
personal injury.
Changes between document issues are cumulative. The latest document issue contains all
changes made in previous issues.
About This Document
Calls attention to important information, best practices
and tips.
NOTE is used to address information not related to
personal injury, equipment damage, and environment
deterioration.
Issue
262018-11-19Optimized the flexible NIC indicator description. For
252018-10-19Added the list of components where the sensors are
242018-09-17Added the description about the information that will
232018-08-17Added the procedure for removing a holding rail. For
222018-07-12Added procedures for removing and installing an SD
212018-05-29Changed LOM and NIC to flexible NIC.
202018-05-10Modified fan module removal and installation
DateDescription
details, see 2.4 Indicators and Buttons.
located. For details, see 11.3 Sensor List.
be lost after mainboard replacement and needs to be
configured again after the mainboard is replaced.
Added the link for importing and exporting the BMC
configuration file to sections 7.42 Installing the
Mainboard and 7.41 Removing the Mainboard.
details, see 3.6 Removing the Server.
card and related precautions. For details, see 7.49
Removing an SD Card Board and 7.50 Installing
an SD Card Board.
2.4 Indicators and Buttons.................................................................................................................................................. 16
3.2.1 Space and Airflow Requirements.............................................................................................................................. 53
3.2.2 Temperature and Humidity Requirements.................................................................................................................54
3.3 Unpacking the Chassis..................................................................................................................................................55
3.4 Installing the Server......................................................................................................................................................55
3.4.1 Installing the Server on L-Shaped Guide Rails......................................................................................................... 56
3.4.2 Installing the Server on Adjustable Guide Rails....................................................................................................... 59
3.4.3 Installing the Server on Holding Rails...................................................................................................................... 61
3.5.1 Connecting Cables to a Mouse, Keyboard, and VGA Port....................................................................................... 69
3.5.2 Connecting a Network Cable.....................................................................................................................................70
3.5.3 Connecting a Cable to a 10GE Port...........................................................................................................................72
3.5.4 Connecting a USB Device.........................................................................................................................................75
3.5.5 Connecting a Serial Cable......................................................................................................................................... 76
3.5.6 Connecting a Power Cable........................................................................................................................................ 77
3.5.7 Laying Out Cables..................................................................................................................................................... 79
3.6 Removing the Server.................................................................................................................................................... 81
3.6.1 Removing the Server and L-Shaped Guide Rails......................................................................................................81
3.6.2 Removing a Server and Adjustable Guide Rail.........................................................................................................82
3.6.3 Removing the Server and Holding Rails................................................................................................................... 84
4 Powering On and Off the Server..............................................................................................89
4.1 Powering On the Server................................................................................................................................................89
4.2 Powering Off the Server............................................................................................................................................... 91
5 Configuring the 5288 V3.............................................................................................................93
5.5 Configuring the BIOS.................................................................................................................................................100
5.6 Changing an iBMC User Password............................................................................................................................ 107
5.7 Setting the Management Network Port IP Address....................................................................................................108
5.8 Installing an OS.......................................................................................................................................................... 112
5.9 (Optional) Configuring the Boot from iSCSI Function for an SP230 flexible NIC...................................................112
6 Software and Configuration Utility.......................................................................................113
7.3 (Optional) Removing the Front Bezel........................................................................................................................ 121
7.4 (Optional) Installing the Front Bezel..........................................................................................................................123
7.5 Removing a Hard Disk............................................................................................................................................... 126
7.6 Installing a Hard Disk.................................................................................................................................................129
7.7 Removing an NVMe PCIe SSD................................................................................................................................. 130
7.8 Installing an NVMe PCIe SSD...................................................................................................................................130
7.9 Removing a PSU........................................................................................................................................................ 130
7.9.1 Removing an AC PSU.............................................................................................................................................130
7.9.2 Removing a DC PSU...............................................................................................................................................132
7.10 Installing a PSU........................................................................................................................................................ 134
7.10.1 Installing an AC PSU............................................................................................................................................ 134
7.10.2 Installing a DC PSU.............................................................................................................................................. 136
7.11 Removing the Chassis Cover....................................................................................................................................138
7.12 Installing the Chassis Cover..................................................................................................................................... 139
7.13 Removing the Air Duct.............................................................................................................................................140
7.14 Installing the Air Duct.............................................................................................................................................. 142
7.15 Removing a Fan Module.......................................................................................................................................... 143
7.16 Installing a Fan Module............................................................................................................................................145
7.17 Removing an Internal Cable..................................................................................................................................... 147
7.18 Installing an Internal Cable.......................................................................................................................................151
7.19 Removing the Riser Card......................................................................................................................................... 154
7.20 Installing a Riser Card.............................................................................................................................................. 156
7.21 Removing a PCIe Card............................................................................................................................................. 158
7.21.1 Removing a PCIe Card from a Riser Card............................................................................................................ 158
7.21.2 Removing a PCIe Card from the Mainboard.........................................................................................................160
7.22 Installing a PCIe Card...............................................................................................................................................161
7.22.1 Installing a PCIe Card on the Riser Card.............................................................................................................. 161
7.22.2 Installing a PCIe Card on the Mainboard.............................................................................................................. 162
7.23 Removing the TPM.................................................................................................................................................. 163
7.24 Installing the TPM.................................................................................................................................................... 165
7.25 Removing the Internal USB Flash Drive..................................................................................................................166
7.26 Installing the Internal USB Flash Drive................................................................................................................... 167
7.27 Removing the System Battery.................................................................................................................................. 168
7.28 Installing the System Battery....................................................................................................................................169
7.29 Removing the RAID Controller Card from the Mainboard..................................................................................... 170
7.30 Installing the RAID Controller Card on the Mainboard...........................................................................................172
7.31 Removing the Standard RAID Controller Card....................................................................................................... 174
7.32 Installing the Standard RAID Controller Card......................................................................................................... 174
7.33 Removing the Supercapacitor (RAID Controller Card)........................................................................................... 175
7.34 Removing the Supercapacitor (Standard RAID Controller Card)............................................................................177
7.35 Installing the Supercapacitor (RAID Controller Card).............................................................................................181
7.36 Installing the Supercapacitor (Standard RAID Controller Card)............................................................................. 182
7.37 Removing a CPU...................................................................................................................................................... 185
7.38 Installing a CPU........................................................................................................................................................188
7.39 Removing a DIMM.................................................................................................................................................. 192
7.40 Installing a DIMM.................................................................................................................................................... 193
7.41 Removing the Mainboard......................................................................................................................................... 196
7.42 Installing the Mainboard...........................................................................................................................................202
7.43 Removing the flexible NIC.......................................................................................................................................207
7.44 Installing the flexible NIC........................................................................................................................................ 208
7.45 Removing a SATADOM...........................................................................................................................................210
7.46 Installing a SATADOM.............................................................................................................................................211
7.47 Removing an SD Card..............................................................................................................................................213
7.48 Installing an SD Card............................................................................................................................................... 216
7.49 Removing an SD Card Board................................................................................................................................... 219
7.50 Installing an SD Card Board.....................................................................................................................................220
7.51 Removing the Front Hard Disk Backplane...............................................................................................................222
7.52 Installing the Front Hard Disk Backplane................................................................................................................ 223
7.53 Removing the Rear Hard Disk Backplane................................................................................................................224
7.54 Installing the Rear Hard Disk Backplane................................................................................................................. 230
7.55 Removing the PSU Backplane................................................................................................................................. 232
7.56 Installing the PSU Backplane................................................................................................................................... 234
7.57 Removing a Front Mounting Ear Plate.....................................................................................................................235
7.58 Installing a Front Mounting Ear Plate...................................................................................................................... 237
7.59 Removing an M.2 SATA SSD Card......................................................................................................................... 239
7.60 Installing an M.2 SATA SSD Card...........................................................................................................................240
9 Common Operations.................................................................................................................244
9.1 Querying the IP Address of the Management Network Port......................................................................................244
9.2 Logging In to the iBMC WebUI.................................................................................................................................246
9.3 Logging In to the iBMC CLI......................................................................................................................................248
9.4 Logging In to a Server Using the Independent Remote Console............................................................................... 251
9.5 Logging In to a Server over a Serial Port Using PuTTY............................................................................................258
9.6 Logging In to a Server over a Network Port Using PuTTY.......................................................................................260
9.7 Logging In to the Remote Virtual Console.................................................................................................................262
10.2 Preparing for Debugging.......................................................................................................................................... 278
10.3 Using Product Documentation..................................................................................................................................279
11.2 Acronyms and Abbreviations................................................................................................................................... 281
lBefore powering on a device, ground it to prevent injuries.
lDo not use the ladder unsupervised. Have someone else hold the ladder steady to prevent
accidents.
lDo not view the open optical port directly when installing, testing, or replacing optical
cables to prevent laser radiation from injuring your eyes.
Transportation Precautions
Contact the manufacturer for precautions before attempting transportation.
lThe logistics company engaged to transport the equipment must be reliable and comply
with international standards for transporting electronics. Ensure that the equipment being
transported is kept upright and avoid collision, damp conditions, corrosion, package
damage, and pollution.
lTransport the equipment in its original packaging.
lPackage fragile parts such as optical modules, PCIe SSDs, and GPUs separately from
bulky items such as chassis.
lPower off all equipment before transportation. Do not transport hazardous materials.
1 Safety Instructions
Capacity Expansion Precautions
lUse only genuine components that can be queried in the Huawei Server Compatibility
Checker.
lOnly maintenance engineers authorized by Huawei are allowed to expand capacity.
Avoid physical damage caused by electrostatic discharge, collision, and scratches.
lBefore expanding capacity, back up data and isolate the equipment from the network to
prevent data loss, service interruption, and network loops.
lAfter expanding capacity, upgrade software to prevent software incompatibility with new
components.
Equipment Safety
lTo ensure equipment and human safety, use the recommended power cables.
lPower cables can be used only for dedicated devices, and they cannot be used for any
other devices.
lBefore touching devices, wear ESD clothing and gloves to avoid electrostatic damage.
lWhen moving devices, hold the handles or bottom of devices instead of the handles of
the installed modules (for example, a PSU, fan module, hard disk, or board).
lExercise caution when using tools to avoid equipment damage.
lConnect the power cables to different power distribution units (PDUs) so that the PDUs
can supply power to the device in active/standby mode. This improves power supply
reliability.
lBefore powering on a device, ground it to prevent device damage.
The 5288 V3 server (marked as H52M-03 on the nameplate, 5288 V3 for short) is the Huawei
new-generation 4 U dual-socket or single-socket rack server that adopts effective design to
ensure excellent computing performance and large-capacity local storage with elastic
scalability. The server is designed for cold data storage, video surveillance, cloud storage, and
Big Data, and can be widely used in a variety of industries, such as media and entertainment,
finance, and public security.
Table 2-1 lists four configurations supported by the 5288 V3.
ConfigurationNumber of Hard DisksRAID Controller Card
1
l 24 front 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
l (Optional) Four built-in 3.5-inch or
2.5-inch SAS HDDs, SATA HDDs,
or SSDs
2
l 24 front 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
One SAS adapter or SAS
RAID controller card
NOTE
SAS cards indicate standard
RAID controller cards or SAS
HBAs. SAS RAID controller
cards support RAID
configuration. SAS HBAs
usually do not support RAID
configuration.
One SAS adapter or SAS
RAID controller card
l 12 rear 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
l (Optional) Four built-in 3.5-inch or
2.5-inch SAS HDDs, SATA HDDs,
or SSDs
3
l 24 front 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
l 12 rear 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
l (Optional) Four built-in 3.5-inch or
2.5-inch SAS HDDs, SATA HDDs,
or SSDs
Dual SAS adapters or SAS
RAID controller cards
l The 24 front hard disks
and four built-in hard
disks are controlled by
one SAS adapter or SAS
RAID controller card.
l The 12 rear hard disks
are controlled by one
standard PCIe SAS
adapter or SAS RAID
controller card.
4
l 24 front 3.5-inch SAS HDDs, SATA
HDDs, or SSDs
One SAS adapter or SAS
RAID controller card
l A maximum of four rear NVMe
PCIe SSDs. A server without NVMe
PCIe SSDs supports a maximum of
12 rear 3.5-inch SAS HDDs, SATA
HDDs, and SSDs.
lYou can configure two rear 2.5-inch or 3.5-inch hard disks in position 1 shown in Figure
2-3. The hard disks are numbered A0 and B0 from top to bottom.
lYou can configure one riser card and two rear 2.5-inch hard disks, or two rear 3.5-inch
hard disks on I/O module in position 4 shown in Figure 2-3. The hard disks are
numbered A1 and B1 from top to bottom.
I/O module supports only one riser card if the server with dual-CPU configuration is not
equipped with rear hard disks. One riser card provides two or three PCIe slots.
lYou can configure a GE or 10GE flexible NIC in position 16 in Figure 2-3.
lThe rear hard disks in position 18 shown in Figure 2-3 are numbered as follows:
– Numbered 24 to 35 from top to bottom and from left to right when the server is
equipped with one RAID controller card
– Numbered 0 to 11 from top to bottom and from left to right when the server is
equipped with two RAID controller cards
Figure 2-4 shows the rear panel of a 5288 V3 with four NVMe PCIe SSDs.
Figure 2-4 Rear panel of a server with four NVMe PCIe SSDs
1Rear hard disk2Hard disk fault indicator
3Hard disk activity indicator4PCIe slot
5UID indicator6USB 3.0 port
7I/O module8Data transmission status indicator
9Connectivity status indicator10VGA port
11Serial port12PSU port
13PSU indicator14PSU 1
15NVMe PCIe SSD yellow indicator16NVMe PCIe SSD green indicator
19Management network port (Mgmt)20Rear hard disk (numbered 24 to 31
from left to right and from top to
bottom)
21LAN on motherboard––
lYou can configure two rear 2.5-inch or 3.5-inch hard disks in position 1 shown in Figure
2-4. The hard disks are numbered A0 and B0 from top to bottom.
lYou can configure one riser card and two rear 2.5-inch hard disks, or two rear 3.5-inch
hard disks on I/O module in position 7 shown in Figure 2-4. The hard disks are
numbered A1 and B1 from top to bottom.
I/O module supports only one riser card if the server with dual-CPU configuration is not
equipped with rear hard disks. One riser card provides two or three PCIe slots.
lYou can configure a GE or 10GE flexible NIC in position 20 in Figure 2-4.
The 5288 V3 supports the following models of LANs on motherboard (flexible NICs):
lSM211: provides two GE electrical ports.
lSM210/SM212: provides four GE electrical ports.
lSM233: provides two 10GE electrical ports.
lSM231: provides two 10GE optical ports.
NOTE
For details about the flexible NICs supported by the 5288 V3, see Huawei Server Compatibility
Checker.
The following figures show flexible NIC ports and indicators.
An I/O module supports 2-slot PCIe riser module or 3-slot PCIe riser module, but three slots
are always displayed on the panel. For a 2-slot PCIe riser module, slot 8 is unavailable.
Table 2-2 describes the mapping between PCIe devices and CPUs, and the PCIe
specifications of the 5288 V3.
NOTE
The PCIe devices mapping to a vacant CPU socket are unavailable.
NIC with four
network ports
is used as an
example.
The four
network port
numbers are
as follows:
l 02/00/0
l 02/00/1
l 02/00/2
l 02/00/3
Slot Size
—
Note 1: B/D/F, Bus/Device/Function Number.
Note 2: ROOT PORT (B/D/F) indicates the bus number of a CPU internal PCIe root port.
Device (B/D/F) indicates the bus number (displayed on the OS) of an onboard or external
PCIe port.
Note 3: The PCIe slots that support full-height full-length PCIe cards are backward
compatible with full-height half-length or half-height half-length PCIe cards.
Note 4: The PCIe slots with the bus width of PCIe x16 are backward compatible with PCIe
x8, PCIe x4, and PCIe x1 cards.
Note 5: The power supply capabilities of all slots support PCIe cards of 75 W. The power
of a PCIe card depends on its model. For details about the supported PCIe cards, see
Huawei Server Compatibility Checker. For PCIe cards out of the Huawei Server
Compatibility Checker, contact your local Huawei sales personnel.
Note 6: Table 2-2 lists the default values of B/D/F. If CPUs are not in full configuration or
a PCIe card with a PCI bridge is configured, the values of B/D/F may differ.
Note 7: For a server with NVMe PCIe SSDs, a 2-slot riser module must be installed on the
I/O module and an NVMe PCIe SSD adapter can be installed only in slot 7.
Before connecting to an
external USB device, check
that the USB device operates
properly. A server may fail if it
is connected to an abnormal
USB device.
Table 2-4 Ports on the rear panel
Port
TypeQuantityDescription
VGA portDB151The VGA port is used to
connect a terminal, such as a
monitor or KVM.
USB portUSB 3.02The USB ports are
connected to USB devices.
NOTE
Before connecting to an
external USB device, check
that the USB device operates
properly. A server may fail if it
is connected to an abnormal
USB device.
USB 3.0 is disabled by default.
You can enable it on the BIOS
as required.
Management
network port (Mgmt)
Ethernet port1The 1000 Mbit/s Ethernet
port is used to manage the
server.
Serial portDB91A three-pin serial port (that
contains only the PIN2 RX,
PIN3 TX, and PIN5 GND
signals in the DB9
connector, no signals in
other pins). The default
baud rate is 115200 bit/s.
The serial port is used as the
system serial port by
default. You can set it as the
iBMC serial port by using
the iBMC command. The
port is used for debugging.
The UID button/indicator helps identify and
locate a server in a rack. You can turn on or off
the UID indicator by manually pressing the UID
button or remotely running a command on the
iBMC CLI.
l Off: The server is not located.
l Steady blue: The server is located.
NOTE
l You can press this button to turn on or off the UID
indicator.
l You can press and hold down this button for 4 to 6
seconds to reset the iBMC.
l Steady green: The server is operating properly.
l Blinking red at 1 Hz: A major alarm is
generated.
l Blinking red at 5 Hz: A critical alarm is
generated.
l Off: The hard disk is not detected or is faulty.
l Blinking green: Data is being read from or
written to the hard disk, or synchronized
between hard disks.
l Steady green: The hard disk is inactive.
-Hard disk fault
indicator
Network port
link status
indicators
l Off: The hard disk is working properly.
l Blinking yellow: The hard disk is located, or
rebuilding RAID.
l Steady yellow: The hard disk is faulty, or hard
disk members of the RAID array the hard disk
is in are abnormal.
NOTE
If the fault indicator is steady yellow, run related
commands to check the RAID status to determine
whether the RAID array status is abnormal or whether
the hard disk is faulty. For details about command
description, see HUAWEI V2&V3 Server RAID
Controller Card User Guide.
The indicators show the status of each Ethernet
port on the flexible NIC.
l Off: The port is not in use or faulty.
l Steady green: The port is properly connected.
NOTE
If the flexible NIC provides two network ports, they
correspond to network port indicators 1 and 2 on the
front panel.
Table 2-6 describes the indicators on the 5288 V3 rear panel.
Table 2-6 Indicators on the rear panel
IndicatorState
Management
network port
Data
transmission
l Off: No data is being transmitted.
l Blinking yellow: Data is being transmitted.
status indicator
Connection
status indicator
l Off: The network port is not connected.
l Steady green: The network port is properly
connected.
UID indicator
l Off: The server is not located.
l Steady blue: The server is located.
PSU indicator750 W AC Platinum PSU
l Off: There is no AC power input; the input
overvoltage or undervoltage occurs and the
PSU is not detected; the PSU is abnormal.
l Steady green: Both the active output and the
standby output are normal.
Hard disk activity indicator
l Off: The hard disk is not detected or is faulty.
l Blinking green: Data is being read from or
written to the hard disk, or synchronized
between hard disks.
l Steady green: The hard disk is inactive.
Hard disk fault indicator
l Off: The hard disk is working properly.
l Blinking yellow: The hard disk is located, or
rebuilding RAID.
l Steady yellow: The hard disk is faulty, or hard
disk members of the RAID array the hard disk
is in are abnormal.
NOTE
If the fault indicator is steady yellow, run related
commands to check the RAID status to determine
whether the RAID array status is abnormal or whether
the hard disk is faulty. For details about command
description, see HUAWEI V2&V3 Server RAID
Controller Card User Guide.
Table 2-7 describes the NVMe PCIe SSD indicators on the 5288 V3 rear panel.
Supported configurations:
l Two 2.5-inch hard disk slots
module
l Two 3.5-inch hard disk slots
2I/O moduleSupported configurations:
l One full-height full-length standard PCIe 3.0 x16 slot (bandwidth:
PCIe 3.0 x8), one full-height full-length standard PCIe 3.0 x8 slot,
and one full-height half-length standard PCIe 3.0 x8 slot
l Two standard full-height full-length PCIe 3.0 x16 slots (bandwidth
of one of them: PCIe 3.0 x8)
l Two 2.5-inch hard disk slots
l Two 3.5-inch hard disk slots
NOTE
PCIe slot signals on I/O module are from CPU 2. In single-CPU configuration,
I/O module 2 does not support a standard PCIe card.
3PSUTwo AC or DC hot-swappable PSUs in 1+1 redundancy mode based
on the input power:
l AC PSUs: 110 V or 220 V
l DC PSUs: –48 V
l High-voltage (HV) DC PSUs: 240 V or 380 V
NOTE
The PSUs provide short-circuit protection. The PSUs that support dual input
live wires provide double-pole fuses.
4Flexible
NIC
Supported flexible NIC configurations:
l One GE flexible NIC with two or four GE ports
l One 10GE flexible NIC with two 10GE electrical ports
NOTE
Both flexible NICs support the Network Controller Sideband Interface (NC-SI).
To query the flexible NICs supported by the 5288 V3, use the Huawei Server
Compatibility Checker.
5PCIe card
Two half-height half-length PCIe 3.0 x8 slots for standard PCIe cards
on the
mainboard
– Uses the LSI SAS2308 chip.
– Supports RAID 0, 1, 10, and 1E.
l SR130:
– Uses the LSI SAS3008 chip.
– Supports RAID 0, 1, 10, and 1E.
l SR430C:
– Uses the LSI SAS3108 chip.
– Supports RAID 0, 1, 10, 5, 50, 6, and 60.
– Supports a supercapacitor for power failure protection.
– Supports a maximum of 32 hard disks.
– Supports a cache of 1 GB or 2 GB.
l SR630C:
– Uses the LSI SAS3108 chip.
– Supports RAID 0, 1, 10, 5, 50, 6, and 60.
– Supports a supercapacitor for power failure protection.
– Supports 40 hard disks.
– Supports a cache of 1 GB or 2 GB.
These RAID controller cards support RAID level migration and drive
roaming.
NOTE
When you configure dual SAS adapters or SAS RAID controller cards for the
server, one of them must be a standard PCIe SAS adapter or SAS RAID
controller card.
9
TPM
(optional)
10DIMMs
l Complies with the Trusted Computing Group (TCG) standards.
l Protects the platform from viruses or unauthorized operations.
l Up to 16 DDR4 RDIMMs or LRDIMMs, which provide a
maximum memory capacity of 2048 GB.
l Capacity per DIMM: 8 GB, 16 GB, 32 GB, 64 GB, or 128 GB.
l Memory speed: DDR4 1866 MT/s, 2133 MT/s, or 2400 MT/s
To provide powerful data processing functions, the server has CPUs
integrated with memory controllers and PCIe controllers. The server
supports the following CPU configurations:
l Intel® Haswell-EP® E5-2600 v3 series 4-core, 6-core, 8-core, 10-
core, 12-core, 14-core, and 16-core CPUs with a maximum thermal
design power (TDP) of 135 W
l Intel® Broadwell-EP® E5-2600 v4 series 4-core, 6-core, 8-core,
10-core, 12-core, 14-core, 16-core, 18-core, and 20-core CPUs
with a maximum TDP of 135 W
13MainboardProvides CPU sockets, DIMM slots, and PCIe slots, and integrates
basic components such as the BIOS chip and Platform Controller Hub
(PCH) chip (C612).
Integrates the SM750 display chip and provides 32 MB display
memory. The maximum resolution is 1920 pixels x 1200 pixels at 60
Hz with 16 M colors.
NOTE
l After a dedicated graphics card driver is installed, only Windows Server
2012, Windows Server 2012 R2, Windows Server 2016 can support the
resolution of 1920 pixels x 1200 pixels while other OSs only support the
maximum resolution supported by the built-in drivers.
l If the resolution is greater than 1024 x 768, the display effect may be
19USB 3.0 port (J53)20Rear hard disk backplane power
connector (J30 PWR CONN1)
21Front hard disk backplane signal
22Left mounting ear connector (J42)
connector (J1003 HDD BP CONN)
23SATA/SATADOM 1 (J37)24SATA/SATADOM 2 (J38)
25PSU backplane connector (J31)26Rear hard disk backplane power
connector (J29 PWR CONN3)
27TPM CONN (J35)28SoftRAID key (J51)
29System battery30Dual-SD card module (J57 SD
board)
31Riser card slot (corresponding to CPU 2,
J3-J1005)
2.7 Internal Cabling
This topic describes the internal cabling rules for your reference.
NOTE
This section uses a RAID controller card on the mainboard as an example to describe how to connect
cables to the card. The method for connecting cables to a standard RAID controller card is the same as
that for connecting cables to a RAID controller card on the mainboard.
Storage Signal Cabling
The ports on an RAID controller card may look different from the picture in this topic,
depending on the card model.
Figure 2-13 Signal cables to the front hard disk backplane
No.DescriptionBOM Number
1Signal cable for connecting the front hard disk
04051053
backplane (J32) to the rear hard disk backplane
marked 7 (J24)
2SAS HD cable (Port A-Port A) for connecting the
04051018
front hard disk backplane to the RAID controller card
on the mainboard
3SAS HD cable (Port B-Port B) for connecting the
04051018
front hard disk backplane to the RAID controller card
on the mainboard
4SAS HD cable (one-into-two cable) for connecting the
04051060
front hard disk backplane (J31 REAR PORT) to the
rear 2-bay hard disk backplane (J3)
NOTE
This cable is a Y-shaped cable. The end with one connector
is connected to the front drive backplane, and the other end
is connected to the rear drive backplane. The cable must be
routed along the chassis wall on the same side with the
PSUs. The cable length limit prevents this cable from being
connected to the other rear drive backplane.
If a one-to-two SAS cable is incorrectly connected, a disk
error alarm is generated on the iBMC WebUI.
5Signal cable for connecting the front hard disk
04051053
backplane (J35) to the rear hard disk backplane
marked 8 (J24)
6Signal cable for connecting the front hard disk
04051340
backplane (J1 MAIN BOARD) to the mainboard
(J1003)
lSignal cables for connecting the rear 12-bay hard disk backplane to the front hard disk
backplane when the 5288 V3 is equipped with a single RAID controller card
Figure 2-14 Signal cables to the rear 12-bay hard disk backplane (single RAID
controller card)
DescriptionBOM Number
No.
1SAS cable (Port A-Port A) for connecting the rear
04050433
12-bay hard disk backplane to the front hard disk
backplane
2SAS cable (Port B-Port B) for connecting the rear
04050433
12-bay hard disk backplane to the front hard disk
backplane
3SAS cable (Port C-Port C) for connecting the rear
04050433
12-bay hard disk backplane to the front hard disk
backplane
4Signal cable for connecting the rear 12-bay hard disk
04051053
backplane (J1) to the front hard disk backplane (J36)
lThe rear 12-bay hard disk backplane is connected to the standard RAID controller card
in a PCIe slot using SAS cables when the 5288 V3 is equipped with dual RAID
controller cards. This topic assumes that a standard RAID controller card is installed in a
PCIe x8 slot on the mainboard.
3504051282To replace
connecting an
NVMe PCIe SSD
adapter to the rear
12-bay hard disk
backplane (Port 3Port 3)
3404051282
connecting an
NVMe PCIe SSD
adapter to the rear
12-bay hard disk
backplane (Port 2Port 2)
BOM Number
an NVMe
riser
assembly,
contact
Huawei
technical
support.
Page 50
5288 V3 Server
User Guide
2 Product Overview
No.DescriptionNVMe PCIe
3SAS cable for
4SAS cable for
2.8 Logical Structure
BOM Number
SSD Slot
Number
3304051282
connecting an
NVMe PCIe SSD
adapter to the rear
12-bay hard disk
backplane (Port 1Port 1)
3204052060
connecting an
NVMe PCIe SSD
adapter to the rear
12-bay hard disk
backplane (Port 0Port 0)
lThe 5288 V3 in dual-CPU configuration supports two Intel® Xeon® E5-2600 v3
(Haswell-EP) series CPUs or two Intel® Xeon® E5-2600 v4 (Broadwell-EP) series
CPUs, and 16 DDR4 DIMMs. CPUs interconnect through QuickPath Interconnect (QPI)
buses, which provide the maximum transmission speed of 9.6 GT/s. Figure 2-21 shows
the logical structure of the 5288 V3 in dual-CPU configuration.
lHard disks are managed by the RAID controller card or PCH.
lThe CPUs connect to two PCIe riser cards through PCIe connectors. The riser cards
provide PCIe slots of various specifications. A RAID controller card can be combined
with the hard disk backplane to form a hard disk interface module, which connects to a
CPU through PCIe connectors.
NOTE
The 5288 V3 supports a maximum of two Intel® Xeon® E5-2600 v3 series CPUs or two Intel® Xeon
E5-2600 v4 series CPUs. For details about the CPU positions, see 2.6 Mainboard Layout. The server in
single-CPU configuration does not support a PCIe riser card.
Rank sparingAllocates memory ranks as backup ranks to prevent the
system from crashing due to uncorrectable errors.
Memory address parity
Detects memory command and address errors.
protection
Memory demand and
patrol scrubbing
Provides the memory patrol function for promptly
correcting correctable errors upon detection. If these
errors are not corrected promptly, uncorrectable errors
may occur.
Memory mirroringImproves system reliability.
Single device data
correction (SDDC)
Provides a single-device, multi-bit error correction
capability to improve memory reliability.
Device taggingDegrades and rectifies DIMM device faults to improve
DIMM availability.
Data scramblingOptimizes data stream distribution and reduces the
error possibility to improve the reliability of data
streams in the memory and the capability to detect
address errors.
PCIePCIe advanced error
Improves server serviceability.
reporting
QPIIntel QPI link level retryProvides a retry mechanism upon encountering errors
to improve QPI reliability.
Intel QPI protocol
protection via CRC
OSCore disable for fault
resilient boot (FRB)
Corrupt data
containment mode
Provides cyclic redundancy check (CRC) protection
for QPI packets to improve system reliability.
Isolates a faulty CPU during startup to improve system
reliability and availability.
Identifies the memory storage unit that contains
corrupted data to minimize the impact on running
programs and improve system reliability.
Socket disable for FRBIsolates a faulty socket during startup to improve
system reliability.
Architected error
records
With the eMCA feature, the basic input/output system
(BIOS) collects error information recorded in hardware
registers in compliance with UEFI specifications, sends
the error information to the OS over the APEI of the
Advanced Configuration and Power Interface (ACPI),
and locates the error unit, improving system
availability.
Error injection supportInjects errors to verify various RAS features.
Provides software recovery for uncorrectable errors,
which improves system availability.
Improves system availability.
The out-of-band system accesses MCA registers by
using the Platform Environment Control Interface
(PECI). If a fatal error occurs in the system, the out-ofband system collects onsite data to facilitate error
analysis and locating and improve system
serviceability.
The BIOS processes errors and reports error
information to the OS and iBMC in compliance with
specifications to improve system serviceability.
The BIOS provides physical unit information for
DIMM errors, and the OS traces and predicts errors,
and isolates error memory pages.
2.10 Software and Hardware Compatibility
For details about the software and hardware compatibility of the 5288 V3, see Huawei Server
Compatibility Checker.
The 5288 V3 supports a variety of operating systems (OSs), including Windows, SUSE Linux
Enterprise Server (SLES), and Red Hat Enterprise Linux (RHEL). For details about the OS
compatibility of the 5288 V3, see Huawei Server Compatibility Checker.
Table 2-11 lists the OSs supported by NVMe PCIe SSDs.
RAID supportMultiple RAID controller cards configuration specifications are
provided. For details, see 2.1 Overview.
The 5288 V3 supports the following models of RAID controller cards:
l SR120:
– Uses the LSI SAS2308 chip.
– Supports RAID 0, 1, 10, and 1E.
l SR130:
– Uses the LSI SAS3008 chip.
– Supports RAID 0, 1, 10, and 1E.
l SR430C:
– Uses the LSI SAS3108 chip.
– Supports RAID 0, 1, 10, 5, 50, 6, and 60.
– Supports a cache of 1 GB or 2 GB.
– Supports a supercapacitor for power failure protection.
– Supports a maximum of 32 hard disks.
l SR630C:
– Uses the LSI SAS3108 chip.
– Supports RAID 0, 1, 10, 5, 50, 6, and 60.
– Supports a cache of 1 GB or 2 GB.
– Supports a supercapacitor for power failure protection.
– Supports a maximum of 40 hard disks.
l SP435:
– Uses the PM8060 chip.
– Supports RAID 0, 1, 10, 5, 50, 6, and 60.
– Supports a supercapacitor for power failure protection.
These RAID controller cards support RAID level migration and drive
roaming.
NOTE
The SP435 (PM8060) controller card is a standard PCIe card, which can be
installed in a PCIe slot.
MemoryDual-CPU configuration: up to 16 DDR4 DIMM slots (8 DIMMs per
CPU) for installing either RDIMMs or LRDIMMs
l 16 x 32 GB RDIMMs for two CPUs, with a maximum memory
capacity of 512 GB
l 16 x 128 GB LRDIMMs for two CPUs, with a maximum memory
capacity of 2048 GB
l Maximum memory speed: 2400 MT/s
l Memory protection technologies: Error Checking and Correction
(ECC), memory mirroring, Single Device Data Correction (SDDC),
memory sparing, and lockstep
NOTE
DIMMs of different types (RDIMMs and LRDIMMs) and specifications (such as
the capacity, bit width, rank, and height) cannot be installed on one server. That is,
all DIMMs on one server must have the same BOM number. To query the BOM
numbers of DIMMs, use the Huawei Server Compatibility Checker.
Storage
l Multiple hard disk configuration specifications are provided. For
details, see 2.1 Overview.
l Hard disks are hot-swappable.
l The server supports RAID 0, 1, 10, 1E, 5, 50, 6, and 60. It protects
cache data from power failures, and supports RAID level migration,
drive roaming, self-diagnosis, and web-based remote configuration.
l The mainboard can be configured with a SAS adapter or SAS RAID
controller card (with a maximum of 2 GB cache) to improve hard
disk storage performance and ensure user data security.
NOTE
l Only a server with an NVMe PCIe SSD adapter supports a maximum of four
NVMe SSDs. For a server with a SAS card or SAS RAID controller card,
SAS or SATA disks can also be installed in NVMe SSD slots.
l If SATADOM SoftRAID is used when NVMe PCIe SSDs are configured,
only the Legacy mode can be select for the BIOS.
Network portFive types of NICs are supported, which provide the following network
ports:
l Two GE electrical ports, supporting NC-SI, Wake on LAN (WOL),
and Preboot Execution Environment (PXE)
l Four GE optical ports, supporting NC-SI, WOL, and PXE
l Two 10GE optical ports, supporting NC-SI and PXE
l Two 10GE electrical ports, supporting NC-SI, WOL, and PXE
l The 5288 V3 provides one PCIe 3.0 x8 slot dedicated for a RAID
controller card and five standard PCIe 3.0 x8 slots.
The specifications for the five standard PCIe slots are described as
follows:
– One full-height full-length standard PCIe 3.0 x16 slot
(bandwidth: PCIe 3.0 x8), one full-height full-length standard
PCIe 3.0 x8 slot, and one full-height half-length standard PCIe
3.0 x8 slot on the I/O module (Signals of the PCIe slots on the I/O
module come from CPU 2.)
– Two half-height half-length standard PCIe 3.0 x8 slots on the
mainboard (PCIe slot signals come from CPU 1.)
l PCIe slots on an I/O module can house a maximum of two Huawei
ES3000 V2 SSDs to improve I/O performance for search, cache, and
download services.
l PCIe slots can house K2000 and NVS 315 GPUs.
NOTE
l Specifications of the rear hard disk module:
l Two 2.5-inch hard disk slots
l Two 3.5-inch hard disk slots
l Specifications of the I/O module:
l One full-height full-length standard PCIe 3.0 x16 slot (bandwidth: PCIe
3.0 x8), one full-height full-length standard PCIe 3.0 x8 slot, and one fullheight half-length standard PCIe 3.0 x8 slot
l Two full-height full-length standard PCIe 3.0 x16 slots (one for PCIe 3.0
x8 signals)
l Two 2.5-inch hard disk slots
l Two 3.5-inch hard disk slots
l The fifth-generation SSD cards must be installed in the two slots on a riser
card. A server supports a maximum of two fifth-generation SSD cards.
Port
l Two USB 2.0 ports on the front panel
l Two USB 3.0 ports, one DB15 VGA port, one DB9 serial port, and
one RJ45 system management port on the rear panel
l One internal USB 3.0 port, one internal dual-SD card port, and two
internal miniSSDs (SATADOMs) for installing an OS or prebooting
an installation program
NOTE
The internal USB port cannot be used for installing a Windows OS. The server
with two internal miniSSDs (SATADOMs) and SoftRAID does not support the
installation of a virtualization OS. For details about the types of OSs that can be
installed, see Huawei Server Compatibility Checker.
Fan moduleFour hot-swappable fan modules, tolerating the failure of a single fan
l 750 W AC Platinum PSU, supporting 240 V HVDC
l 750 W AC Titanium PSU
l 1200 W AC Platinum PSU
l 1200 W PSU, supporting 380 V HVDC
l 800 W PSU, supporting –48 V DC or –60 V DC
NOTE
The PSUs on one server must have the same BOM number. For details about
BOM numbers, see Huawei Server Compatibility Checker.
System
management
l UEFI
l Huawei iBMC
– Uses an independent port.
– Supports Simple Network Management Protocol (SNMP) and
Intelligent Platform Management Interface (IPMI).
– Provides the GUI, virtual KVM, virtual media, Serial Over LAN
(SOL), intelligent power supply, remote control, and hardware
monitoring features.
l NC-SI
l Supports Huawei eSight management software and integration with
third-party management systems, such as VMware vCenter,
Microsoft SystemCenter, and Nagios.
Security
l Power-on password
l Administrator password
l Chassis cover opening logging
l Front bezel (optional)
The front bezel is installed on the front panel and comes with a
security lock to prevent unauthorized operations on hard disks.
GPUIntegrates the SM750 display chip and provides 32 MB display memory.
The maximum resolution is 1920 pixels x 1200 pixels at 60 Hz with 16
M colors.
NOTE
l After a dedicated graphics card driver is installed, only Windows Server 2012,
Windows Server 2012 R2, Windows Server 2016 can support the resolution of
1920 pixels x 1200 pixels while other OSs only support the maximum
resolution supported by the built-in drivers.
l If the resolution is greater than 1024 x 768, the display effect may be affected.
2.12 Technical Specifications
Table 2-13 describes the technical specifications for the 5288 V3.
175 mm (4U) x 447 mm x 748 mm (6.89 in. x 17.60 in. x 29.45 in.)
W x D)
Installation spaceThe server fits into a universal cabinet that complies with the IEC 297
standard:
l Width: 19 in.
l Depth: > 1000 mm (39.37 in.)
Guide rail installation requirements are as follows:
l L-shaped guide rails: apply only to a Huawei cabinet.
l Adjustable guide rails: apply to a cabinet where the distance
between the front and rear mounting bars is 543.5 mm to 848.5
mm (21.40 in. to 33.41 in.).
l Holding rails: apply to a cabinet where the distance between the
front and rear mounting bars is 610 mm to 914 mm (24.02 in. to
35.98 in.).
PSU power ratingThe PSUs support the following power ratings:
l 750 W AC PSU: 750 W (input voltage range: 100 V to 240 V AC
or 192 V to 288 V DC)
l 800 W DC PSU: 800 W (input voltage range: –36 V to –75 V
DC)
l 1200 W high-voltage direct current (HVDC) PSU: 1200 W (input
voltage range: 260 V to 400 V DC)
l 1200 W AC PSU:
– 750 W (input voltage: 100 V AC)
– 900 W (input voltage range: 110 V to 127 V AC)
– 1200 W (input voltage range: 200 V to 240 V AC)
– 1200 W (input voltage range: 192 V to 288 V DC)
Weight in full
configuration
l With 36 hard disks: 57 kg (125.69 lb)
l With 24 hard disks: 48 kg (105.84 lb)
Packaging materials: 15 kg (33.08 lb)
Rated input
voltage
l 750 W or1200 W AC PSUs: 100 V to 240 V AC
l 750 W or 1200 W AC PSUs (compatible with 240 V HVDC
PSUs): 192 V to 288 V DC
l 800 W DC PSUs: –36 V to –75 V DC
l 1200 W high-voltage direct current (HVDC) PSUs: 260 V to 400
V DC
NOTE
The recommended current specification for the external power circuit breaker
connected to the server is 32 A.
TemperatureOperating temperature: 5°C to 40°C (41°F to 104°F) (ASHRAE Class
A3 compliant)
Storage temperature: –40°C to +65°C (–40°F to +149°F)
Temperature change rate: < 20°C/h (36°F/h)
Long-term storage temperature: 21°C to 27°C (69.8°F to 80.6°F)
NOTE
l When NVIDIA Tesla P4 GPUs are configured, the maximum operating
temperature is 30°C.
l The 5288 V3 supports the maximum operating temperature of 35°C (95°F)
when it is equipped with rear hard disks, 135 W CPUs, or Huawei PCIe
SSDs.
l The operating performance of hard disks may deteriorate when a single fan
module fails.
l The 5288 V3 can work at the highest temperature of 40°C (86°F) when it
is configured with E5-2698 v3, E5-2690 v3, E5-2667 v3, E5-2643 v3,
E5-2637 v3, E5-2698 v4, E5-2690 v4, E5-2667 v4, E5-2643 v4, or
E5-2637 v4 CPUs. If the environment temperature is over 40°C (86°F) or
one fan fails, CPU performance may deteriorate.
Heat dissipationThe system draws cool air in from the front, delivers the cool air
through the hard disks, fan modules, processors, dual in-line memory
modules (DIMMs), and PCIe cards, and then exhausts air from the
rear.
HumidityOperating humidity: 8% RH to 90% RH (non-condensing)
Acoustic noiseThe data listed in the following is the declared A-weighted sound
power levels (LWAd) and declared average bystander position Aweighted sound pressure levels (LpAm) when the server is operating
in a 23°C (73.4°F) ambient environment. Noise emissions are
measured in accordance with ISO 7779 (ECMA 74) and declared in
accordance with ISO 9296 (ECMA 109).
l Idle:
– LWAd: 48.2 Bels
– LpAm: 65.5 dBA
l Operating:
– LWAd: 53.0 Bels
– LpAm: 70.3 dBA
NOTE
The actual sound levels generated when the server is operating vary depending
on the server configuration, workload, and ambient temperature.
Corrosive air
pollutant
Particulate
pollutant
Power
consumption
l Corrosion rate of the copper test piece: < 300 Å/month (in
compliance with the ANSI/ISA-71.04-2013 gaseous corrosion
level G1)
l Corrosion rate of the silver test piece: < 200 Å/month
l The ISO14664-1 Class 8 requirements are met.
You are advised to ask a professional organization to monitor
particulate pollutants in the equipment room.
l There is no explosive, conductive, magnetic, or corrosive dust in
the equipment room.
The power consumption changes depending on the server
configuration. For details, see Huawei Server Power Calculator.
This topic describes the precautions and procedures for installing and removing the 5288 V3.
3.1 Installation Overview
3 Installing and Removing the 5288 V3
3.2 Installation Environment
3.3 Unpacking the Chassis
3.4 Installing the Server
3.5 Connecting External Cables
3.6 Removing the Server
3.1 Installation Overview
NOTE
For details about the safety instructions during the process of installing or replacing a server or its parts,
see "Safety" in the Server Product Documentation.
Installation Rules
The 5288 V3 is 4U high and can be installed in a standard 19-inch cabinet. The server can be
installed on L-shaped, adjustable, and holding rails, and is stackable. If the cabinet has
sufficient space, a distance of 1U or more can be reserved between servers.
Installation Process
Understand the entire installation process before installing the 5288 V3. Figure 3-1 shows the
process for installing the 5288 V3.
To ensure the proper installation and operating of the RH2288 V3, prepare the installation
environment before installation. The installation environment includes the cabinet, space,
temperature, and humidity. When installing the server, select a location that meets the
environmental standards described in this section.
3.2.1 Space and Airflow Requirements
To allow for servicing and adequate airflow, observe the following space and airflow
requirements:
lInstall the 5288 V3 in an access-restricted area.
lKeep the area in which the server is located clean and tidy.
lFor easy heat dissipation and maintenance, keep a clearance of 800 mm (31.50 in.)
between walls and the front and rear doors of the cabinet.
lDo not block the air intake vents. Otherwise, air intaking and heat dissipation will be
affected.
lEnsure that the air conditioning system in the equipment provides enough wind to ensure
proper heat dissipation of all components.
The server draws in cool air from the front of the cabinet and exhausts hot air from the rear.
Therefore, the front and rear of the cabinet must be well ventilated for optimal heat
dissipation. Figure 3-2 shows the direction of heat dissipation.
To ensure continued safe and reliable equipment operating, install or position the system in a
well-ventilated, climate-controlled environment.
lUse temperature control devices all year long in any climates.
lIn dry areas, use humidifiers to ensure ambient humidity.
lIn humid areas, use dehumidifiers.
Table 3-1 Temperature and humidity requirements in the equipment room
Item
Temperature5°C to 40°C (41°F to 104°F)
Humidity8% RH to 90% RH (non-condensing)
Description
3.2.3 Cabinet Requirements
When installing the server, the cabinet must meet the following requirements:
lA standard 19-inch cabinet with a depth of more than 1000 mm (39.37 in.).
lComplies with International Electrotechnical Commission 297 (IEC 297).
lAir filters installed on cabinet doors.
lAC power supplied from the rear of the cabinet.
3.3 Unpacking the Chassis
The following tools must be available before the operation:
lProtective gloves
lESD gloves or ESD wrist strap
lBox cutter
Procedure
Step 1 Check whether the package and seals are in good condition.
NOTE
If the package is damaged (for example, the package is soaked or deformed, or the seals or pressure
sensitive adhesive tape is unsealed), fill in the Cargo Problems Feedback Form.
3 Installing and Removing the 5288 V3
Step 2 Use a box cutter to cut the pressure-sensitive adhesive tape on the package, and open the
package.
Exercise caution when using a box cutter to avoid personal injury or equipment damage.
Step 3 Check the components against Table 3-2 and ensure that they are intact and free from
oxidation, corrosion, and damage.
Table 3-2 Packing items
No.
1Documentation bag that contains a warranty card, and a Quick Start Guide
2A pair of guide rails
3One rack server
----End
Description
3.4 Installing the Server
This topic describes how to install a server on L-shaped guide rails, adjustable guide rails, and
holding rails. Choose an installation method based on site conditions.
Install a server if:
lAdditional servers are required in a cabinet for capacity expansion.
lA faulty server needs to be replaced with a new 5288 V3.
lA different rack server needs to be replaced with the server.
lA server component needs to be maintained.
Before installing a server, check that the guide rails of the cabinet are level, smooth, and not
deformed. This ensures surface contact between the server and the guide rails and even weight
distribution. You are advised to use the guide rails delivered with the server to ensure even
weight distribution.
The following tools are available:
lESD wrist strap or ESD gloves: used to prevent ESD damage
lScrewdriver: used to tighten screws on the panel
lFloating nut hook: used to install floating nuts
3.4.1 Installing the Server on L-Shaped Guide Rails
L-shaped guide rails apply only to a Huawei cabinet.
Procedure
Step 1 Determine the positions for installing floating nuts. See Figure 3-3.
Figure 3-3 Positions for installing floating nuts
Step 2 Install floating nuts.
1.Determine the position for installing a floating nut based on the installation plan.
The floating nuts and screws are used together to tighten the screws.
The middle of two adjacent square holes with small spacing is the boundary of two Us. See Figure
3-4. The boundary between Us is used as the reference for calculating device installation space.
Figure 3-4 1U boundary lines on a mounting bar
2.Fasten the lower end of a floating nut to the top square hole within the second target 1U
space from top to bottom in a front mounting bar. See step (1) in Figure 3-5.
Figure 3-5 Installing a floating nut
3.Fasten the upper end of the floating nut to the mounting bar at the front of the cabinet by
using the floating nut hook. See step (2) in Figure 3-5.
The floating nut is installed, as shown in (3) in Figure 3-5.
4.Install another floating nut in the top square hole within the bottom target 1U space using
the same method.
5.Install the other floating nuts using the same method.
Step 3 Install L-shaped guide rails.
1.Place a guide rail horizontally in the designated position and keep the guide rail in
contact with the mounting bars in the cabinet. See Figure 3-6.
3.When the two mounting ears of the 5288 V3 come into contact with the mounting bars
on the cabinet, tighten the captive screws on the mounting ears to secure the 5288 V3.
See step (2) in Figure 3-7.
Step 5 After the installation is complete, connect a network cable, a VGA cable, or USB devices as
required. Connect the power cables and power on the 5288 V3.
----End
3.4.2 Installing the Server on Adjustable Guide Rails
Adjustable guide rails apply to a cabinet with a distance of 543.5 mm to 848.5 mm (21.40 in.
to 33.41 in.) between the front and rear mounting bars.
Procedure
Step 1 Install adjustable guide rails.
1.Use a screwdriver to fasten one dowel pin on front and two dowel pins on the rear of the
guide rail. Figure 3-8 shows the positions of dowel pins.
NOTE
Three types of dowel pins are shipped with the guide rails, and their diameters are 6.8 mm (0.27
in.), 8.7 mm (0.34 in.), and 9.2 mm (0.36 in.). Choose dowel pins with the largest diameter that
can pass through the holes.
2.Place a guide rail horizontally in the planned position and stretch the guide rail and align
the holes on the guide rail with the holes on the inner guide rail of the rack. Lead the
front and rear dowel pins out of the holes to pre-position the guide rail. See step (1) in
Figure 3-9.
NOTE
Guide rails are divided into left and right guide rails (labeled with L and R). A pair of guide rails
should be installed together and cannot be installed reversely.
3.Use a screwdriver to tighten two screws on front and two screws on the rear of the guide
rail. See step (2) in Figure 3-9. The figure shows the positions of screws.
4.Install another guide rail on the opposite side by using the same method.
1.Lift the 5288 V3 and move it to the cabinet. This task requires at least four people.
2.Place the 5288 V3 onto the guide rails and slide it into the cabinet. See step (1) in Figure
3-10.
Figure 3-10 Installing the 5288 V3
3.When the two mounting ears of the 5288 V3 come into contact with the mounting bars
on the cabinet, tighten the captive screws on the mounting ears to secure the 5288 V3.
See step (2) in Figure 3-10.
Step 3 After the installation is complete, connect a network cable, a VGA cable, or USB devices as
required. Connect the power cables and power on the 5288 V3.
----End
3.4.3 Installing the Server on Holding Rails
Holding rails apply to the cabinet where the distance between the front and rear mounting bars
is 609 mm (23.98 in.) to 914 mm (35.98 in.).
When installing the RH5288 V3 on the holding rails, you can configure a cable management
arm (CMA) to arrange the external cables connected to the server.
Step 1 Install the front end and rear end of the holding rail.
3 Installing and Removing the 5288 V3
1.Holding down the release latch at the front end of the holding rail, pull out the locking
plate by its hook. See steps (1) and (2) in Figure 3-11.
Figure 3-11 Installing the front and rear ends of a holding rail
2.Insert the positioning pins on the rear end of the holding rail into the square holes in the
cabinet. See step (3) in Figure 3-11.
3.Align the front end of the holding rail with the hole in the column, and push the holding
rail forward to insert it into the hole in the column. See step (4) in Figure 3-11.
4.Push the hook backwards to make the metal sheet in full contact with the column. See
step (5) in Figure 3-11.
5.(Optional) Install an M6 screw in the third square hole on the rear end of the holding rail
to secure the rail. See step (6) in Figure 3-11.
6.Install the other guide rail on the opposite side using the same method.
Step 2 Install the server.
1.Pull out an inner rail from a holding rail until the inner rail cannot move, push the release
button upward, and remove the inner rail from the holding rail. See steps (1) and (2) in
2.Align the screws on the server with the notches in the inner guide rails, push the server
forward until you hear a sound, and ensure that the latches eject and completely block
the screws to fix the server to the inner guide rails. See Figure 3-13.
3.Check that the buckles on the support trays are properly secured and the support trays
touch the fixing blocks of the middle rails. See Figure 3-14. If the support trays are not
in such a position, manually adjust them. Otherwise, the rolling balls may fall.
This topic describes how to connect cables to the server.
3.5.1 Connecting Cables to a Mouse, Keyboard, and VGA Port
After powering on the server, connect cables to a mouse, keyboard, and VGA port to set the
basic input/output system (BIOS) and RAID, and log in to the operating system (OS).
The front and rear panels of the server provide DB15 video graphics array (VGA) ports but
have no standard PS/2 port for a keyboard or mouse. You can connect a keyboard and mouse
to the USB ports on the front or rear panel based on site installation conditions. The following
describe two connection methods:
lConnect a keyboard and mouse to the USB ports.
lConnect a keyboard and mouse by using a USB-to-PS/2 cable.
Procedure
Step 1 Connect the USB connector on the PS/2 cable to the USB port on the front or rear panel of the
Step 2 Connect the connectors on the other end of the PS/2 cable to the keyboard and mouse.
Step 3 Connect the DB15 connector on one end of a VGA cable to the VGA port on the rear panel of
the server. Tighten the screws on both sides of the connector to secure the cable.
Step 4 Connect the other end of the VGA cable to the VGA port on the monitor. Tighten the two
screws on the connector to secure the cable.
Figure 3-21 Connecting a USB-to-PS/2 cable and a VGA cable
3 Installing and Removing the 5288 V3
----End
3.5.2 Connecting a Network Cable
Connect a network cable in the following scenarios:
lThe network needs to be set up over a gigabit Ethernet (GE).
lYou want to log in to the iMana/iBMC of the server using the management network port
for device management.
lOne or more network cables do not work.
lA network cable needs to be replaced if the existing network cable does not meet length
requirements after a device is replaced or moved.
Conditions:
lUse a network cable tester to check that the new network cable works properly.
lCheck that the new network cable is of the same model as or compatible with the
network cable to be replaced. Determine whether they are straight-through or crossover
cables.
lBefore installing a network cable to a network port, check that the network cable
connector is intact and the pins have no sundries or deformation.
lESD wrist strap or ESD gloves: used to prevent ESD damage
lDiagonal pliers: used to trim the cable ties after binding cables
lRJ45 crimping tool: used to make network cable connectors
lNetwork cable tester: used to test the cable connectivity
lMultimeter: used to test the resistance
lThe new network cable must have the same number as the one to be replaced.
lUse the same type of label for network cables. Record the name and number of the local
device to be connected on one side of the network cable, and those of the peer device on
the other side. Attach a label to the position 2 cm (0.79 in.) away from the end of a
network cable.
Route the new network cable in the same way (underfloor or overhead) as the network cable
to be replaced. Note the following points:
lUnderfloor cabling is recommended because it is tidy and easy to route. Route cables in
the cabinet based on the installation requirements. You are advised to arrange new cables
in the same way as existing cables. Ensure that cables are routed neatly and undamaged.
lSeparate network cables from power cables for routing.
lBend a network cable with the bending radius of no less than 4 cm (1.57 in.) to prevent
damage to core wires. Check that the cable insulation layer is intact. Ensure that cables
are routed for easy maintenance and capacity expansion.
lNetwork cables must be bound using cable ties to ensure proper routing. Check that
network cables are bound together neatly and properly, are routed straightly and close to
each other. Cable ties must be installed at an even spacing and fastened properly.
Step 4 Remove the network cable to be replaced.
Remove the network cable from the network interface card (flexible NIC) or board in a
cabinet.
Step 5 Connect the new network cable.
Note the following:
lConnect the new network cable to the same port as the removed one.
lInstall the network cable in the network port securely.
Step 6 Connect the other end of the network cable to the peer network port.
3 Installing and Removing the 5288 V3
Figure 3-22 Connecting a network cable to management and service network ports
Connect the other cable connector to the peer device based on the network plan. Note the
following:
lConnect the new network cable to the same port as the removed one.
lInstall the network cable in the network port securely.
Step 7 Check that the new network cable is functioning properly.
Power on the device, and ping the peer device connected by the new network cable. If the
peer device cannot be pinged, check whether the network cable is damaged or the connectors
are not secured.
Step 8 Bind the new network cable with other cables.
Bind the new network cable in the same way as the existing network cables. You can also
remove all cable ties and bind all of the network cables again if necessary.
----End
3.5.3 Connecting a Cable to a 10GE Port
Connect an optical cable or SFP+ cable to a 10GE port. Before the connection, determine the
cable type and ensure that the cable to be connected is of the same model as the one to be
replaced or is compatible with the server.
The following tools are available:
lPhillips screwdriver: used to tighten screws
lESD wrist strap or ESD gloves: used to prevent ESD damage
Procedure
Step 1 Check the new network model.
Step 2 Number the new cable.
lThe new cable must have the same number as the old one.
lUse the same type of labels for optical cables. Record the name and number of the local
device to be connected on one side of an optical cable and those of the peer device on the
other side. Attach a label 2 cm (0.79 in.) away from the end of an optical cable.
Lay out the new cable in the same way as the old one. Note the following points:
lLay out optical or SFP+ cables in the cabinet according to installation regulations. You
are advised to arrange new cables in the same way as existing cables. Ensure that cables
are routed neatly and intact.
lSeparate optical or SFP+ cables from power and signal cables when laying out the
cables.
lBend an optical or SFP+ cable with a bending radius of at least 4 cm (1.57 in.) to prevent
damage to core wires. Ensure that the cable is intact. Ensure that optical or SFP+ cables
are laid out for easy maintenance and capacity expansion.
lBind optical cables with cable ties. Ensure that optical cables are routed straightly and
bound neatly and that cable ties are installed at even spacing and fastened properly.
1.Remove the old optical cable.
Remove the old optical cable from the server.
2.Connect the new optical cable.
NOTE
l Connect the new optical cable to the same port as the old one.
l Connect the optical cable to the optical module securely.
1.Insert the optical module into the optical port. See step (1) in Figure 3-23.
Step 6 Check that the new cable is properly connected.
Power on the device, and ping the IP address of the peer device connected over the new cable.
If the peer device cannot be pinged, check that the cable is intact or the connector is securely
connected.
Step 7 Bind the new optical cable.
Bind the new optical cable in the same way as existing optical cables. You can also remove all
cable ties and bind all of the optical cables again if necessary.
----End
3.5.4 Connecting a USB Device
Check that data has been copied to the USB device to be connected.
Procedure
Step 1 Locate the server to which the USB device is to be connected.
Step 2 Connect the USB storage device to the USB port on the server, as shown in Figure 3-26.
The 5288 V3 server provides one standard DB9 serial port on the rear, which works as the
system serial port by default. You can set it as the iBMC serial port on the iBMC CLI.
The serial port can be used in the following scenarios:
lUsed as the system serial port to monitor the status of the operating system (OS).
lUsed as the iBMC serial port for debugging and fault locating.
For details about the command for setting the serial port to the iBMC serial port, see the
HUAWEI Rack Server iBMC User Guide.
The following tools are available:
ESD wrist strap or ESD gloves: used to prevent ESD damage
Procedure
Step 1 Align the connector on the serial cable with the serial port, and insert the connector into the
Do not use excessive force; otherwise, the pins in the serial port may be damaged.
Step 2 Tighten the screws on the connector to secure the serial cable.
----End
3.5.6 Connecting a Power Cable
The following describes how to connect AC and DC power cables. Connect AC or DC power
cables based on the PSU type.
Before connecting power cables, ensure that the server and its internal components have been
installed, and the PGND cable is connected to server (For the 5288 V3, which does not
provide ground terminals, connect the PGND cable to the cabinet where the server is located).
Use dedicated power cables to ensure equipment and personal safety. Power cables must be
securely connected. Power cables are used only for dedicated servers. Do not use them for
other devices.
The following tools are available:
ESD wrist strap or ESD gloves: used to prevent ESD damage
Connecting an AC Power Cable
Step 1 Wear an ESD wrist strap.
Step 2 Connect one end of the AC power cable to the power port on the PSU of the server.
lIf the PSU has a velcro strap, use the velcro strap to bind the power cable to the middle
of the PSU handle after connecting the power cable to the PSU to prevent power cable
poor contact or disconnection. See Figure1 Connecting a power cable (secured with
Figure 3-28 Connecting a power cable (secured with the PSU using a velcro strap)
lIf the PSU has a plastic clip, perform the following steps to connect the power cable:
a.Open the plastic clip and place the power cable in the plastic clip. See step (1) in
Figure2 Connecting a power cable (secured with the PSU using a plastic clip).
Then close the plastic clip. See step (2) in Figure2 Connecting a power cable
(secured with the PSU using a plastic clip).
Figure 3-29 Connecting a power cable (secured with the PSU using a plastic clip)
b.Open the lock of the plastic clip. See a of step (3) in Figure2 Connecting a power
cable (secured with the PSU using a plastic clip). Slide the plastic clip towards
the PSU socket to ensure that the plastic clip is close to the connector of the power
cable. See b of step (3) in Figure2 Connecting a power cable (secured with the
PSU using a plastic clip).
Step 3 Insert the other end of the AC power cable into the AC power socket on the cabinet. The AC
power socket is located horizontally at the rear of the cabinet. Select a jack on the power
socket for connection.
Step 4 Bind the power cable to the cable trough using cable ties.
Step 2 Connect the power cables to the wiring terminals on the PSU. The power cables are connected
properly once they are latched. See Figure 3-30.
lConnect the OT terminal on the negative power cable to the NEG(-) wiring terminal on
the PSU.
lConnect the OT terminal on the positive power cable to the RTN(+) wiring terminal on
the PSU.
lConnect the OT terminal on the ground cable to the ground terminal on the PSU.
Figure 3-30 Connecting DC power cables
3 Installing and Removing the 5288 V3
Step 3 Connect the other end of the power cable to the DC power distribution frame (PDF) based on
the power cable connection rules.
Step 4 Bind the power cable to the cable trough using cable ties.
----End
3.5.7 Laying Out Cables
Basic Rules
lLay out and bind cables of different types of cables (such as power and signal cables)
separately. Ensure that the distance between power cables and signal cables is longer
than or equal to 30 mm (1.18 in.) when you lay out the cables in parallel.
lLay out cables of the same type in the same direction. Cables near each other can be
routed in crossover mode.
lIf you cannot identify cables using the cable labels, attach an engineering label to each
cable.
lProtect cables from burrs, heat sinks, and active accessories, which may damage the
insulation layers of cables.
lEnsure that the length of cable ties for binding cables is appropriate. Do not connect two
or more cable ties together for binding cables. After binding cables properly, trim off the
excess lengths of the cable ties and ensure that the cuts are neat and smooth.
lEnsure that cables are properly routed, supported, or fixed within the cable troughs
inside the cabinet to prevent loose connections and cable damage.
lCoil any surplus lengths of cables and bind them to proper positions inside the cabinet.
lRoute cables straightly and bind them neatly. The bending radius of a cable varies with
the position where the cable is bent.
– If you need to bend a cable in its middle, the bending radius must be at least twice
the diameter of the cable.
– If you need to bend a cable at the output terminal of a connector, the bending radius
must be at least five times the cable diameter, and the cable must be bound before
bending.
– Do not use cable ties at a place where the cables are bent. Otherwise, the cables
may break.
Common Cable Routing Methods
The methods of routing cables inside a cabinet are described as follows:
lDetermine overhead cabling and underfloor cabling for power cables based on specific
conditions of the equipment room. For example, take into consideration the AC power
distribution frame (PDF), surge protector, and terminal block.
lDetermine overhead cabling and underfloor cabling for service data cables based on
specific conditions of the equipment room.
lPlace the connectors of all service Ethernet cables at the bottom of the cabinet in order so
that the connectors are difficult to reach.
Cable Routing Rules
To ensure optimal heat dissipation, do not block the air exhaust vents of PSUs.
3.5.8 Verifying Cable Connections
Before verifying cable connections, ensure that the power is off. Any incorrect or loose
connection may cause personal injury or equipment damage.
This topic describes the procedures for powering on and off the server.
4.1 Powering On the Server
4 Powering On and Off the Server
4 Powering On and Off the Server
4.2 Powering Off the Server
4.1 Powering On the Server
Power on the server using the iBMC WebUI.
Before powering on the server, you need to obtain the IP address of the iBMC management
network port, and the user name and password for logging in to the iBMC WebUI. For details
about how to obtain the IP address for the management network port and how to operate the
iBMC, see HUAWEI Rack Server iBMC User Guide.
Before powering on the server, pay attention to the following precautions:
lBefore the power-on, disconnect the power supply to the server, and check that all cables
are connected correctly and the power supply voltage meets the requirements.
lDuring the power-on, do not remove or insert hard disks or cables, such as the network
cable and Console port cable.
lWait for at least 1 minute before powering on a server that has just been powered off.
The methods for powering on the server are as follows, depending on the power status of
power supply units (PSUs):
lIf PSUs are properly installed and not powered on, power on the server as follows:
Connect the external power supply to PSUs. Then the server will power on with PSUs.
NOTE
The default value of Power Strategy is Turn on, which indicates that the server automatically powers
on after power is supplied to PSUs. To change the value of Power Strategy, log in to the iBMC WebUI
and choose Power > Power Control.
lIf PSUs are powered on and the server is in the standby state, power on the server as
When the power indicator is steady yellow, the server is in the standby state.
– Press the power button on the front panel to power on the server. For details about
the power button position, see 2.2 Appearance.
– Power on the server using the iBMC WebUI. For details, see 4.1 Powering On the
Server.
– Power on the server using the iBMC command-line interface (CLI) in remote
management mode.
Log in to the iBMC CLI. For details, see 9.3-Logging In to the iBMC CLI.
Run the ipmcset -d powerstate -v 1 command on the iBMC CLI to power on the
server remotely.
Power on the server using the iBMC WebUI.
1.Log in to the iBMC WebUI. For details, see 9.2 Logging In to the iBMC WebUI.
2.Choose Power > Power Control.
The Power Control page is displayed, as shown in Figure 4-1.
Figure 4-1 Power Control page
3.Click Power On. In the displayed dialog box, click Yes to power on the server.
Verification
Check the indicator status after the server is powered on.