SimpliVity OmniCube CN-1400, CN-2400,
CN-3400, and CN-5400 Series Hardware
Installation and Maintenance Guide
Part number: 760-000249 Rev A
Published: June 2017
Page 2
Trademarks
Patents
SimpliVity®,
®
, SimpliVity cube logo®, SimpliVity The Data Virtualization Company®,
OmniCube®, OmniStack®, Global Federated Architecture®, Data Virtualization Platform™, SVT™, and
RapidDR™ are trademarks or registered trademarks of SimpliVity® Corporation in the United States and
certain other countries.
All other trademarks are the property of their respective owners.
SimpliVity OmniCube® and OmniStack® products are covered by various United States and foreign
patents and pending patent applications.
Patents include:
AU 2010265954; BR PI1013789-0; CA 2,776,231; CN ZL201080033630.9; DE 2433226; DK 2433226;
EP 2433226; ES 2433226; FI 2433226; FR 2433226; GB 2433226; IN 679/CHENP/2012; IT 2433226; JP
5695040; NO 2433226; SE 2433226; US 8,478,799; US 9,367,551; US 2016/0283498; EP 12738334.7;
HK 14110213.4; US 2013/0024615; AU 2012273295; BR 112013032706-5; CA 2,840,178; CN
201280036259.0; EP 12732895.3; HK 14110215.2; IN 368/CHENP/2014; JP 6059216; US 9,436,748;
US 2016-0371354; AU 2013222325; BR 112014020806-9; CA 2,865,240; CN 201380017261.8; EP
13710149.9; HK 15100889.7; IN 6929/CHENP/2014; JP 5902323; US 9,032,183; US 2015/0242315;
AU 2014308938; BR 112016003205-5; CA 2,921,039; CN 201480045910.X; EP 14759406.3;
IN 201647008897; JP 2016-536408; US 9,043,576; US 2015-0254256; AU 2016206826; BR
112016028144-6; CA WO2016/115219; CN WO2016/115219; EP 16703395.0; IN 201647041955; JP
WO2016/115219; US 2016/0202927; US 15/280,347
Copyright
Information in this document is subject to change without notification. Reproduction in any manner
whatsoever without the written permission of SimpliVity Corporation is strictly forbidden.
To contact SimpliVity Customer Support, visit https://support.simplivity.com. When contacting a
representative, you need to know the serial number of your OmniStack server to verify your service
subscription.
SimpliVity uses OmniWatch to automatically monitor the health of your OmniStack equipment and have it
send us notifications of any alerts or errors.
The foundation of the SimpliVity architecture is two or more high-performance and highly-available OmniCube
servers. An OmniCube server provides computing, storage, networking, and other resources to the virtual
machines (VM) in the Federation.
After installing the hardware in a rack and connecting power and network cables, you can deploy each OmniCube
server into a SimpliVity Federation. As your capacity and performance needs increase, you can add more
OmniCube servers for easy, on-demand scalability, with no disruption to users.
Hardware components
Each OmniCube model provides different hardware configurations for storage, compute, and memory.
Table 1: Hardware components by hybrid model (hybrid models may contain both HDD and
SSD physical drives)
ComponentCN-1400
CPU
Front SSD
Drives
ModelIntel Xeon
E5-2600 V3 or
V4 series
CPU Count11 or 21 or 21 or 2
CPU Core
Count
Speed in GHz 2.3GHz or
Wattage145W or less145W or less145W or less145W or less
Quantity2244
Capacity400GB400GB400GB800GB
6 or 88 or greater8 or greater8 or greater
greater
CN-2400 and
CN-2400-E
CN-2400:
Intel Xeon
E5-2600 V3 or
V4 series
CN-2400-E:
V4 series
2.3GHz or
greater
CN-3400
Intel Xeon
E5-2600 V3 or
V4 series
2.3GHz or
greater
CN-5400 and
CN-5400-E
Intel Xeon
E5-2600 V3 or
V4 series
2.3GHz or
greater
InterfaceSATASASSASSAS
Hardware components5
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ComponentCN-1400
CN-2400 and
CN-2400-E
CN-3400
CN-5400 and
CN-5400-E
Front HDD
Drives
Dimension2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
RAID TypeRAID1RAID1RAID5RAID5
SelfEncrypting
NoCN-2400-E
only
NoCN-5400-E
only
Drives
Quantity482020
Capacity1TBCN-2400 1TB
1TB1.2TB
(V3), 1.2TB
(V4)
CN-2400-E:
1.2TB (V4)
InterfaceSASSASSASSAS
Dimension2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
2.5" (2.5"
carrier)
RAID TypeRAID5RAID6RAID60RAID60
Rear HDD
Drives
RPM7,200CN-2400:
7,20010,000
7,200 (V3),
10,000 (V4)
CN-2400-E:
10,000 (V4)
SelfEncrypting
NoCN-2400-E
only
NoCN-5400-E
only
Drives
Quantity2222
Capacity300GB300GB300GB300GB
InterfaceSASSASSASSAS
Dimension2.5"2.5"2.5"2.5"
RAID TypeRAID1RAID1RAID1RAID1
RPM10,00010,00010,00010,000
6Hardware components
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ComponentCN-1400
CN-2400 and
CN-2400-E
CN-3400
CN-5400 and
CN-5400-E
Effective
Storage
Capacity
Memory
Size and
Frequency
Total storage
capacity for
user data.
Omits storage
reserved by
SimpliVity.
2.34TBCN-2400:
4.79TB (V3),
5.7TB (V4)
CN-2400-E:
5.7TB (V4)
12.86TB15.46TB
Single CPU•128GB;4x32GB RDIMM @ 2133MHz or 2400MHz
•192GB;4x32GB + 4x16GB RDIMM @ 2133MHz or
2400MHz
•256GB;8x32GB RDIMM @ 2133MHz or 2400MHz
•384GB;12x32GB RDIMM @ 1866MHz or 2133MHz
Contact your SimpliVity sales representative to learn about
memory sizes greater than 384GB.
Dual CPUN/A•256GB;8x32GB RDIMM @ 2133MHz or
2400MHz
•384GB;8x16GB + 8x32GB RDIMM @
2133MHz or 2400MHz
•512GB;16x32GB RDIMM @ 2133MHz or
2400MHz
Power Supply
Units
Interfaces
Deduplication
and
Compression
Hot
swappable,
integrated
fans
Embedded2 x 10GbE SFP+ and 2 x 1GbENetwork
VM Network
(optional)
Accelerator
•768GB;24x32GB RDIMM @ 1866MHz or
2133MHz
Contact your SimpliVity sales representative to
learn about memory sizes greater than 768GB.
2 x 750W2 x 1100W
Not applicable for single CPUs
2 x 10GbE or 2 x 1GbE
Contact your SimpliVity sales representative to learn about the
vendor-specific interface cards currently supported for your
platform.
Hardware components7
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ComponentCN-1400
CN-2400 and
CN-2400-E
CN-3400
CN-5400 and
CN-5400-E
Remote
System
IPMI processor and network port for remote, out-of-band, web-based
management.
Management
Table 2: Hardware components by All Flash model (All Flash models contain SSD physical
drives only)
Component
CPU
ModelIntel Xeon E5-2600 V4 series
CN-2400-F, CN-3400-F, CN-5400-F
CPU Count1 or 2
CPU Core
8 or greater
Count
Speed in GHz 2.3GHz or greater
Wattage145W or less
Front SSD
Drives
QuantityCN-2400-F: 5
CN-3400-F: 10
Rear SSD
Drives
CN-5400-F: 14
Capacity1.6TB
InterfaceSATA
Dimension2.5" (2.5" carrier)
RAID TypeCN-2400-F: RAID5
CN-3400-F: RAID6
CN-5400-F: RAID6
Self-
No
Encrypting
Drives
Quantity2
Capacity480GB
Dimension2.5"
RAID TypeRAID1
8Hardware components
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Component
CN-2400-F, CN-3400-F, CN-5400-F
Effective
Storage
Capacity
Memory
Size and
Frequency
Total storage
capacity for
user data.
Omits storage
CN-2400-F: 4.4TB
CN-3400-F: 9.3TB
CN-5400-F: 14.4TB
reserved by
SimpliVity.
Single CPU•128GB;4x32GB RDIMM @ 2133MHz or 2400MHz
•192GB;4x32GB + 4x16GB RDIMM @ 2133MHz or 2400MHz
•256GB;8x32GB RDIMM @ 2133MHz or 2400MHz
•384GB;12x32GB RDIMM @ 1866MHz or 2133MHz
Contact your SimpliVity sales representative to learn about
memory sizes greater than 384GB.
Dual CPU•256GB;8x32GB RDIMM @ 2133MHz or 2400MHz
•384GB;8x16GB + 8x32GB RDIMM @ 2133MHz or 2400MHz
•512GB;16x32GB RDIMM @ 2133MHz or 2400MHz
•768GB;24x32GB RDIMM @ 1866MHz or 2133MHz
Contact your SimpliVity sales representative to learn about
memory sizes greater than 768GB.
Power Supply
Units
Interfaces
Deduplication
and
Compression
Remote
System
Management
Hot
2 x 1100W
swappable,
integrated
fans
Embedded2 x 10GbE SFP+ and 2 x 1GbENetwork
VM Network
(optional)
Not applicable for single CPUs
2 x 10GbE or 2 x 1GbE
Contact your SimpliVity sales representative to learn about the
vendor-specific interface cards currently supported for your
platform.
Accelerator
IPMI processor and network port for remote, out-of-band, web-based
management.
Hardware components9
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About the front panel components
The front panel of each OmniCube server provides system controls, diagnostic indicators, USB and video
ports, and contains a different number of solid state drives (SSD) and hard disk drives (HDD).
Figure 1: OmniCube CN-3400 and CN-5400 front panel
Table 3: Front panel component descriptions
CalloutComponentDescription
1Power buttonControls power to the system and indicates whether
there is power to the system. If the indicator is green,
the system is receiving power.
4Retention latchesLocks the enclosure in the rack. You can push a latch
System identification button and system identification
connector.
The system identification button helps you locate
a system within a rack. If you push the system
identification button on the back panel or the front
panel, the system identification buttons on the front
panel and the back panel flash blue. Push a system
identification button a second time to stop it from
flashing.
The system identification connector, located to the
right of the system identification button, connects the
optional system status indicator assembly through the
optional cable management arm.
to release the enclosure and slide it out.
10Hardware components
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CalloutComponentDescription
5Storage2.5" drives, numbered 0 to 23, left to right, with power
(right) and activity (left) LED indicators.
The system models contain different drive
configurations:
•CN-1400: Contains 6 drives. Drives 0 and 1 are
SSDs and drives 3 to 5 are HDDs. Drives 6 to 23
are empty.
•CN-2400 and CN-2400-E: Contains 10 drives.
Drives 0 and 1 are SSDs and drives 2 to 9 are
HDDs. Drives 10 to 23 are empty.
•CN-3400, CN-5400 and CN-5400-E: Contains 24
drives. Drives 0 to 3 are SSDs and drives 4 to 23
are HDDs.
•CN-2400-F: Contains 5 drives. Drives 0 to 4 are
SSDs. Drives 5 to 23 are empty.
•CN-3400-F: Contains 10 drives. Drives 0 to 9 are
SSDs. Drives 10 to 23 are empty.
•CN-5400-F: Contains 14 drives. Drives 0 to 13 are
SSDs. Drives 14 to 23 are empty.
6Video inputEnables you to connect a monitor as part of a
7USB connectorUSB 2.0-compliant connector. Enables you to connect
8Service tagProvides identification information that you can use
About the back panel components
The back panel of an OmniCube server contains the Accelerator, network ports, rear boot drives, and the
power supplies.
If you pull the enclosure from the rack, the disk
numbering scheme appears on a label attached to the
top of the enclosure.
keyboard, video, and mouse (KVM) setup, for local
administration.
a USB device, such as a keyboard, as part of a KVM
for local administration.
when contacting Customer Support.
Hardware components11
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Figure 2: Back panel of an OmniCube server with a single CPU
Figure 3: Back panel of an OmniCube server with two CPUs
Table 4: Back panel component descriptions
CalloutComponentDescription
1Riser 1Contains PCIe slots 1-3. You can install optional
2x10GbE or 2x1GbE network cards in these slots, as
shown in slot 2, used by guest VMs only.
A system with a single CPU does not contain riser 1. A
plate is installed in place of riser 1.
2AcceleratorInstalled in PCIe slot 5 of riser 2, but also occupies
3RAID controllerRAID Controller for the rear boot drives installed in
12Hardware components
slot 4. The card has two LEDs that continuously glow
green to indicate normal operation.
PCIe slot 6 of riser 3. The RAID Controller for the front
data disks is a mezzanine card.
Page 13
CalloutComponentDescription
4System identification
button
System identification button and system identification
connector.
The system identification button helps you locate
a system within a rack. If you push the system
identification button on the back panel or the front
panel, the system identification buttons on the front
panel and the back panel flash blue. Push a system
identification button a second time to stop it from
flashing.
The system identification connector, located to the
right of the system identification button, connects the
optional system status indicator assembly through the
optional cable management arm.
5IPMI portDedicated IPMI port for remote, out-of-band, web-
based management.
6Serial portSerial port that you can use to connect a serial device.
7Video connectorVideo connector that enables you to connect a monitor
or keyboard, video, monitor (KVM) device.
8USB connectorsTwo USB 3.0 compliant ports for connecting USB
devices to the system.
910GbE portsTwo 10GbE network interfaces, numbered 1 and
2. Each 10GbE interface has link (top) and activity
(bottom) round LEDs. These interfaces are dedicated
to SimpliVity Storage and Federation networks.
101GbE portsTwo 1GbE network interfaces, numbered 3 and 4,
from left to right. Each 1GbE interface has link (left)
and activity (right) square LEDs. These interfaces are
dedicated to the Management network and, optionally,
VM traffic.
11Power suppliesTwo redundant, 750W or 1100W power supplies
with fans, numbered 1 and 2, from left to right. Each
power supply has a status indicator light in the handle.
Disconnect the power cords before removing a power
supply. Wattage depends on the CPU requirements
(number of cores).
12Boot drivesTwo hot-swappable 2.5" hard drives. Reserved
for system use and are not available for user data
storage.
Hardware components13
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Environmental and technical specifications
There are specific environmental and technical specifications for each hardare platform. The
specifications help you when planning the appropriate installation location, environmental conditions, and
resources, such as power and cooling.
Enclosure size and weights
OmniCube servers have specific size dimensions and weights. This information helps you when planning
to install the enclosure in a rack.
DimensionCentimetersInches
Enclosure width48.217.5
Maximum height8.733.44
Maximum depth (from rack
flange)
The maximum weight of a system with all storage drives installed is 30.4 kg, or 67.02 lbs.
Power and thermal
OmniCube servers have two redundant power supplies with specific power and thermal specifications.
Table 5: OmniCube Power and Thermal Specifications
SpecificationDescription
Current consumption10A-5A
Supply voltage100–240V AC (autoranging). Make sure each
Frequency50/60Hz
Heat dissipation4100 BTU/hr max
Maximum inrush current55A
75.5829.75
power source has sufficient electrical overload
protection.
Energy efficiencyEnergy Star, spec version 1.0
Power supply efficiency90-96% efficient (load dependent)
Temperature and humidity
OmniCube servers have limits for temperature and humidity under operating and storage conditions.
14Environmental and technical specifications
Page 15
SpecificationDescription
Humidity and
Temperature
(continuous operation)
Temperature (storage) -40°C to 65°C (-40°F to 149°F) with a maximum temperature gradation
Vibration and shock
OmniCube servers have limits for vibration and shock under operating and storage conditions.
Specification Description
Vibration
(operating)
Vibration
(storage)
Shock
(operating)
Shock
(storage)
10°C to 35°C (50°F to 95°F) at 10% to 80% relative humidity with 26°C
(78.8°F) maximum dew point (maximum wet bulb temperature). De-rate
maximum allowable dry bulb temperature at 1°C per 300m above 950m
(1°F per 547 ft above 3117 ft).
of 20°C per hour.
0.26Grms at 5-350Hz in all orientations.
1.88Grms at 10-500Hz for 15 minutes (all six sides tested).
Six consecutively executed shock pulses in the positive and negative x, y, and z
axes of 40 G for up to 2.3 ms.
Six consecutively executed shock pulses in the positive and negative x, y, and z
axes (one pulse on each side of the system) of 71 G for up to 2 ms.
Altitude and airborne contaminants
OmniCube servers have limits for altitude and airborne contaminants under operating and storage
conditions.
SpecificationDescription
Altitude (operating)-15.2m to 3048m (–50 ft to 10,000 ft)
Altitude (storage)-15.2m to 12,000m (–50 ft to 39,370 ft)
Contaminant level (operating)Class G1 or lower as defined by ISA-
•EMC EN 55022:2010/CISPR 22:2010 EN 55024:2010/CISPR 24:2010 EN 61000-3-2:2006 +A1:2009
•+A2:2009/IEC 61000-3-2:2005 +A1:2008 +A2:2009 (Class D) EN 61000-3-3:2008/IEC 61000-3-3:2008
•SAFETY EN 60950-1:2006 +A1:2010 +A2:2013 +A11:2009 +A12:2011/IEC 60950-1:2005 ed2
+A1:2009 EN 62311:2008
•RoHS EN 50581:2012
•IEC 60950-1/A2:2013
•PTI-1406324-000 od 09.07.2014
•US CFR Title 47, FCC Part 2, 15 ANSI C63.4 2009 Canadian ICES-3(A)/NMB-3(A), Issue 5
•SM SR EN 60950-1:2010/A1:2012,GOST 30805.22:2002
•GB17625. 1-2012;GB4943. 1-2011;GB9254-2008 (CLASS A)
•ZEK 01.4-08
About hardware upgrades
If you need to upgrade the server hardware components, contact Customer Support.
WARNING:
Never install additional options other than those approved for installation by Customer
Support. Doing so will void your warranty and might cause serious server instability and
potential data loss.
About firmware revisions
The OmniStack software requires that each supported platform is running a specific firmware revision.
To avoid compatibility issues, contact Customer Support before making any firmware changes.
NOTE:
If your server, or any management software, has automatic software updates enabled, disable
this feature to avoid installing unsupported firmware revisions.
16About hardware upgrades
Page 17
Chapter 2: Install the server hardware
This section contains the following topics:
•About electrostatic discharge
•Unpack the shipping carton
•Install the server enclosure in a rack
•Mount the enclosure in the rails
•Connect the network cables
•Connect the power cables
•Organize the cables
•Power on the system
•Attach the OmniCube bezel
To install the server hardware, you must unpack all hardware components, install the enclosure in a rack, connect
the power and network cables, and power on the server.
About electrostatic discharge
You must protect sensitive hardware from electrostatic discharge (ESD), which can damage electronic
components.
To protect hardware from ESD:
•Ensure the server hardware is fully grounded at all times to prevent damage from electrostatic
discharge.
•When not installed in a rack, store server hardware in its original packaging or place on a sturdy
surface that is protected from electrostatic discharge.
•When handling server hardware components, always use the electrostatic wrist strap provided or a
similar form of ESD protection.
Unpack the shipping carton
You unpack the shipping carton to prepare the system hardware components for installation.
Before you begin
•The OmniCube servers are heavy. You must have at least one other person to help you lift and unpack
the carton, and SimpliVity recommends the use of a datacenter equipment lift.
•You have cut the pallet shipping straps, which might have considerable tension, using an appropriate
tool and safety wear.
Procedure
1. Remove the shrink wrap from the palleted cartons and carefully cut any straps that hold the cartons to
the pallet.
2. To orient the carton for ease of unpacking and racking, locate the black circle printed on the side of the
carton. This is the front of the system enclosure.
About electrostatic discharge17
Page 18
3. Use a boxcutter to cut the sealing tape. Be careful that you do not cut into the carton. Retain the carton
and packaging in case you need to return the system.
4. Remove the rail kit (callout 1), which contains the rails and the installation instructions.
Figure 4: OmniCube Shipping Carton Contents
5. Remove the cable management arm (CMA) kit, (callout 2) which contains the CMA assembly, a
signal LED extension cable, and the installation instructions. Do not open this box until the end of the
installation procedure, when you are ready to organize the system cables.
6. Remove the accessory pack (callout 3), which contains:
•SimpliVity bezel.
•Power and network cables.
•Software and documentation flash drive.
•Quick Start posters and international Product Information Guide.
7. If you are not ready to install the system in a rack, keep it in the shipping box or place it on a sturdy
surface that is protected from electrostatic discharge.
Shipping carton contents
The shipping carton contains standard items and other items based on your configuration.
18Unpack the shipping carton
Page 19
PartDescription
Server enclosureProvides processing power and storage
capacity.
BezelProtects the SSD and HDD drives in the front
panel.
Power cords (locale specific)•Two standard power cords.
•Two rack power distribution unit (PDU)
cords.
Sliding rail kitContains the left and the right rails, two hook
and loop straps, and detailed installation
documentation.
Cable Management Arm (CMA) kit (optional)Contains the CMA assembly and installation
Your network environment might require additional hardware components not supplied in the shipping
carton.
HardwareDescriptionApplication
Rack19 inch (48.3 cm), four-post,
toolless rack.
1 GbE data cablesTwo Category 5E or Category 6
cables with RJ45 connectors.
An optional third cable is required
to use the IPMI port for remote
console access.
10 GbE data cables2SFP+ Direct Attach active
cables.
Provides easy access to
the server hardware in your
computing environment.
Connects the 1 GbE network
interfaces on each server to a
1 GbE switch. This is required
only if you are connecting the 1
GbE network interfaces on each
server to a switch, such as in
a direct connected or switchconnected network configuration,
for example.
Connects the 10 GbE interfaces
on one server to a 10 GbE
switch.
Unpack the shipping carton19
Page 20
HardwareDescriptionApplication
Redundant network switchesRequired number of switches.Connects devices to a network.
The number of switches depends
on your network configuration.
Redundant Uninterruptible Power
Supply (UPS)
Rack requirements
Each server ships with a sliding rail kit. The sliding rails allow you to fully extend the enclosure out of the
rack for service.
Caution:
See the Rack Installation Instructions supplied with the rail kit for safety and installation
instructions.
The racks you use for each server must meet these requirements:
•The sliding rails support tool-free mounting in 19-inch, EIA-310-E compliant square-hole, 4-post racks,
and also support tooled mounting in threaded 4-post racks.
•Each enclosure is 2U. Ensure the rack has sufficient space for all enclosures.
•For full power redundancy across all servers, you need a rack with two power distribution units (PDU)
feeding separate outlet strips, with sufficient vacant outlets on each strip.
•Ensure the rack is installed and stabilized or bayed according to the manufacturer's instructions.
WARNING:
When servicing an enclosure in a rack, extend only one enclosure at a time to prevent the
rack from tipping.
Required number of UPS
devices.
Provides temporary power to the
server in the event of a complete
power outage.
Rack installation guidelines
There are guidelines to help you successfully install each server in a rack.
•Follow all safety guidelines stated in the documentation that came with the rack, particularly when
installing components into the locations at the top of the rack.
•Ensure the rack meets the requirements.
•Install the servers in the same rack when possible.
•Install the servers in a rack starting from the bottom of the rack.
•Always install the servers in a horizontal position, or you void your warranty and support contract.
Install the server enclosure in a rack
You install the rails, which are included in the shipping carton, at the lowest available U space in the rack
enclosure. You then work up from the bottom of the rack to add additional rails.
Before you begin
•You have read the safety instructions in the Product Information Guide supplied with your system.
20Install the server enclosure in a rack
Page 21
•For first time installers, you have read the instructions included in the rail kit. The rail kit instructions
also explain stabilizing the rack, installing devices, and power distribution.
•You have identified the rack location for the right rail. The system requires 2U of rack space.
Caution:
Two people are required to safely install the system hardware in a rack. The Rack Installation
instructions included in the rail kit box contain important safety and procedural information.
Procedure
1. Pull apart the front and rear rail brackets, lengthening the rails to the correct distance for your rack.
2. Align the top of the rail brackets with the U space markers on the front and rear rack columns (callouts
1 and 2).
Figure 5: Rail kit installation
3. Firmly push the brackets onto the rack columns so that the blue latches (callout 4) engage and lock.
4. Make sure that both the front and rear bracket latches are closed and the rails are secure.
5. Repeat Step 1 through Step 4 for the left rail.
NOTE:
The blue bracket latches will not close properly if the front and rear rail brackets are not level.
Make sure that both rails are level, and that they occupy the same U location in the rack.
Next steps
You can now mount the system enclosure in the rails.
Mount the enclosure in the rails
It takes two people to install each system into the rails, one person on either side, each holding the
system enclosure at the front and rear.
Before you begin
Mount the enclosure in the rails21
Page 22
You have read all supplied rack and safety information. This is important if you are installing the enclosure
into the upper U locations of tall racks, where you need to use steps or platforms.
Procedure
1. Extend each rail from the rack until it locks into place (callout A).
Figure 6: Enclosure installation
2. Identify the location of the four lugs (callout B) on each side of the enclosure, and the corresponding J-
slots in the rails.
3. Hold the enclosure over the rails, aligning the lugs with the J-slots.
4. Starting at the back two lugs, gently rotate the enclosure down (callout C), engaging the lugs in the J-
slots.
5. Ensure all eight lugs on the enclosure are seated firmly in the J-slots in the rails and that the lug lock
(callout D) engages.
6. Press the rail lock button (callout A) and slide the enclosure into the rack (callout E).
7. Ensure the enclosure retention lock (callout F) closes completely.
Next steps
You can now connect the power cables to the OmniCube servers.
Connect the network cables
An OmniCube host includes four network interfaces, located on the back panel of the system enclosure,
which are required for the Federation networks. These interfaces are labeled 1 to 4, from left to right.
Network interfaces 1 and 2 are 10GbE and network interfaces 3 and 4 are 1GbE.
Procedure overview
Read the following information before performing the procedure.
22Connect the network cables
Page 23
For information about the ports required by SimpliVity servers, see the SimpliVity OmniStack Host
Deployment Guide.
Figure 7: OmniCube host network ports
The other networking interfaces are:
•A separate 1GbE IPMI network interface that you can use for the initial system setup and remote outof-band management.
•An optional 1GbE or 10GbE network interface for guest VM use.
Procedure
1. Obtain the network cables needed for the network configuration.
2. Connect the cables according to the guidelines for the SimpliVity networks only.
3. Ensure that no other network interfaces, such as optional 10GbE interfaces, are connected to
your network before deploying the system to a Federation. You can connect these interfaces after
deployment.
NOTE:
If the optional interfaces are connected when you deploy the system, the ports for the
Federation network might not be configured correctly. For help with resolving this error,
contact Customer Support.
Next steps
You can now, optionally, use the Cable Management Arm (CMA) to organize the cables.
Connect the power cables
An OmniCube server includes two, hot-swappable, 750W or 1100W power supplies, labeled 1 and 2, from
left to right. You connect both power supplies to power sources.
Procedure overview
For high availability, you can connect each power supply to a different circuit. In addition, SimpliVity
recommends that you use redundant uninterruptible power supply (UPS) systems to protect against a
complete power outage.
Procedure
1. Obtain the two power cables from the shipping carton.
2. Use the power cables to connect each power supply to a source of power, preferably on different
circuits.
Connect the power cables23
Page 24
Figure 8: Connect the power cables
3. Use the cable strain relief (hook and loop fastener) on each power supply to secure the power cable
and prevent an accidental disconnection.
Figure 9: Securing the power cables
Next steps
You can now connect the network cables.
Organize the cables
Procedure overview
If you do not want to use the cable management arm (CMA), use the two hook and loop straps provided in
the rail kit to organize the power and network cables.
NOTE:
Make sure you have sufficient slack in the cables to fully extend the enclosure from the rack until
the rails are safely locked in the extended position.
Procedure
1. Insert the outer CMA brackets on the interior sides of both rack flanges.
24Organize the cables
Page 25
2. Gather the cables on each side of the enclosure into bundles.
3. Thread the hook and loop straps through the tooled slots on the outer CMA brackets on each side of
the enclosure and secure the cable bundles.
For more information, see the Cable Management Arm Installation Instructions supplied in the cable
management kit.
Power on the system
Press the power button on the front panel of each OmniCube server to apply power to the device.
Procedure
1. Go to the front panel of the system.
2. Press the power button to power-on the system.
3. Check that the health indicator on the front panel changes from flashing amber to steady blue within
approximately 4 minutes.
4. Check that the two LEDs on the Accelerator card at the rear of the system are steady green.
Attach the OmniCube bezel
You attach the OmniCube bezel to the front panel of the system to physically secure the front drives,
ensure proper airflow, and to prevent accidental removal of drives.
Procedure overview
Note the following information before performing the procedure.
NOTE:
To avoid damaging the bezel decals, be sure to remove the bezel from the open end of its
protective wrap rather than the taped end.
Procedure
1. Identify the front panel mounting lugs on the right side of the system.
Power on the system25
Page 26
Figure 10: OmniCube Bezel Lugs
2. Insert the bezel tabs into the front panel mounting lugs.
Figure 11: OmniCube Bezel Tabs
3. Rotate the left side of the bezel inward toward the front panel and push firmly until you hear the latch
click and engage.
26Attach the OmniCube bezel
Page 27
Detach the OmniCube bezel
You can detach the OmniCube bezel from the front panel of the system to gain access to the front drives.
Procedure
1. Hold the blue cube handle to detach the bezel and push up on the release latch.
Figure 12: OmniCube Bezel Latch
2. Rotate the left side of the bezel outward from the front panel and pull to the left, to simultaneously
disengage the tabs on the right side of the bezel.
Attach the OmniCube bezel27
Page 28
Chapter 3: Configure the IPMI port for remote
management
This section contains the following topics:
•Connect to IPMI and launch the Virtual Console
•IPMI configuration requirements
You configure the integrated Intelligent Platform Management Interface ( IPMI) port to access the IPMI console
through a web browser. The IPMI console provides out-of-band remote system management and access to
advanced management options.
Before you begin
Your environment meets the requirements for configuring IPMI. See IPMI configuration requirements on page
30.
Procedure overview
This procedure assumes you are using a computer with Microsoft Windows. If you prefer to configure IPMI at a
later time, you can skip this task and proceed with deploying an OmniCube host using Deployment Manager. See
the SimpliVity OmniStack for vSphere Deployment Guide.
Procedure
1.Connect an Ethernet cable from the Ethernet port on the laptop to the IPMI Ethernet port on the rear of the
OmniCube server.
2.If necessary, change the IPv4 address of the Ethernet port on your laptop:
a) Open Network and Sharing Center and select the Ethernet port connection. This is typically Local Area
Connection.
b) Click Properties > Internet Protocol Version 4 (TCP/IPv4).
c) Record the current settings so that you can restore them later.
d) Check the button labeled Use the following IP address.
e) Enter an IP address in the range 192.168.0.[0-255], excluding 192.168.0.120.
f) Enter a subnet mask of 255.255.255.0.
g) Close the dialogs and exit from Network and Sharing Center.
3.Point your browser to the IPMI default IP address: http://192.168.0.120
4.4. Use the default user name root and the default password calvin to log in.
5.You can optionally change the default IPMI password if prompted to do so, according to your sitespecific
security requirements.
6.Click iDRAC Settings > Network in the left panel.
7.Check the box for Enable IPv4.
8.Do one of the following:
•Check the box for Enable DHCP.
28
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•Assign a static IP address, gateway, subnet mask and [optional] DNS servers, if used.
9.Verify the VLAN settings at the bottom of the screen comply with your network settings. If you are not using
VLANs, this must be unchecked.
10. Click Apply.
11. Click Logout to exit IPMI.
12. Remove the Ethernet cable from the IPMI port in the OmniCube server and replace it with a cable that isconnected to a rack switch. This switch must be in the network that you specified in Step 8 on page 28.
13. Reset the IPv4 properties for your laptop, reversing the changes that you made in Step 2 on page 28.
Next steps
You can now connect to IPMI from any remote location. See Connect to IPMI and launch the Virtual Console
on page 29.
Connect to IPMI and launch the Virtual Console
You connect to the Intelligent Platform Management Interface (IPMI) web GUI to launch the Virtual
Console, which you use to access advanced system options.
Before you begin
You have configured the IPMI port. See Configure the IPMI port for remote management on page
28.
NOTE:
You can use the Virtual Console to power-cycle the OmniCube host and access System Setup.
From System BIOS > System Security, you can enter a new setup password, to prevent
unwanted system access, and save the password to a secure location. Contact Customer
Support before changing any BIOS settings.
Tip:
The Virtual Console is compatible with different browsers and versions of Java. If you see errors
while launching or using the Virtual Console, you might need to try a different browser or Java
version.
Procedure
1. Log in to any computer in the same network as your IPMI.
2. Type the IPMI IP address into your browser. For example: http://110.150.0.12.
3. Log in with the default user name root and the default password calvin.
NOTE:
Enter the new password if you changed the default when configuring IPMI.
4. Select Server > Virtual Console.
Connect to IPMI and launch the Virtual Console29
Page 30
IPMI configuration requirements
You require certain items and information to properly configure the Intelligent Platform Management
Interface (IPMI) port for out-of-band remote system management over the web.
•IPMI uses the DNS Remote Access Controller (RAC) name to identify an OmniCube host. The default
DNS RAC name is the system serial number, as shown on the pullout tab in the front panel. You
can change the DNS RAC name to specify a rack location, your own asset number, or any other
identifiable reference, but the name must be unique.
•If you use DHCP to assign an IP address instead of using a static IP, SimpliVity recommends that you
check the option Register RAC on DNS and use the DNS RAC to reference the OmniCube host. This
prevents problems if the DHCP lease is renewed and a different IP address is assigned to the IPMI
port.
•You have ensured that the ports required for network communication are open.
•You have the following information and items:
◦An IP address. The address can be static or assigned by DHCP.
◦A static address for the gateway, subnet mask, and, optionally, up to two DNS servers, which can
be static or assigned by DHCP.
•An Ethernet cable to connect to the rack-mounted switch that can reach your network (as specified in
the preceding network address requirements).
•The default address of 192.168.0.120 to access the IPMI software and reconfigure its network settings.
•A laptop computer with a Web browser.
◦You might need to temporarily change the IP address used by the laptop's physical Ethernet port.
◦You might need to temporarily disconnect the laptop from wireless networks.
30IPMI configuration requirements
Page 31
Chapter 4: About OmniCube CN-2400-E and
CN-5400-E drive encryption
This section contains the following topics:
•Access the PERC BIOS Configuration Utility
•Check drive security in the BIOS
•Check drive security in the IPMI web interface
•Create a Security Key
•Secure disk groups with a Security Key
•Delete disk groups
•Change the passphrase for a Security Key
•Delete a Security Key
•Erase a drive that supports encryption
You can use Data At Rest Encryption to secure the data on the front SSD and HDD drives in the event that these
drives are lost or stolen. The drive encryption uses Local Key Management (LKM) to prevent unauthorized access
to the data on the physical disks. You create a Security Key with a passphrase on the RAID controller and then
specify the disk groups and virtual disks that you want to secure on the drives. You manage Security Keys on a
per system basis. There is no central key management for all secured systems.
If a secured drive is physically removed from the system (Data at Rest) and then inserted into a different system,
its data is inaccessible without the passphrase used to secure it. You typically create a unique passphrase for
each RAID controller on which you create a Security Key.
The front drives, which are controlled by the H730P Mini Adapter RAID controller, store user data and data for the
OmniStack software. You cannot encrypt the rear boot drives, which are controlled by the PERC H330 Mini RAID
controller. Since the rear boot drives do not contain user data, you do not need to encrypt them.
You use the PERC BIOS Configuration Utility to manage Security Keys on the PERC H730P RAID controller,
including:
Verify if drives are securedYou can use the IPMI web interface or the PERC BIOS Configuration Utility
to confirm whether physical and virtual disks are currently secured with a
Security Key. If disks are secured, you do not need to create a key. You must
configure the IPMI port before you can access the IPMI web interface or the
Virtual Console, which you use to access the BIOS.
Create a Security KeyYou create a Security Key on the RAID controller to encrypt its physical disks
and disk groups.
Secure the disk groupsAfter creating a Security Key, you then secure the disk groups, which also
secures the virtual disks, on the controller.
Delete disk groupsYou can delete the disk groups, which also deletes the virtual disks, on the
controller. You are required to delete all secured virtual disks before you can
erase a drive.
31
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Caution:
When you delete a disk group all of its data on the underlying
physical disks is lost.
Change a Security KeyYou can change the passphrase for a Security Key. Changing the passphrase
requires that you enter the current passphrase.
Delete a Security KeyDeleting a Security Key involves deleting the secured disk groups and their
virtual disks, which erases all data on the disks, and then deleting the Security
Key from the controller. You specify the passphrase when deleting the key.
Erase a drive that supports
encryption
You can erase a drive to permanently delete all of its data and security
attributes, such as a lost or forgotten passphrase. You cannot erase a drive
that contains secured virtual drives.
Access the PERC BIOS Configuration Utility
Before you begin
You have completed these tasks:
•Backed up all virtual machines on the OmniCube host. The system is in a safe state so that you can
restart it and load the BIOS to access the BIOS Configuration Utility.
•Configured the IPMI port for accessing the IPMI web interface, which you use to launch the Virtual
Console. You access the BIOS through the Virtual Console. See Configure the IPMI port for remote
management on page 28.
Procedure
1. Reboot the system.
2. Watch the boot-up messages for the PERC BIOS Configuration Utility.
3. Press Control+R when you see the prompt to display the PERC BIOS Configuration Utility.
Check drive security in the BIOS
32Access the PERC BIOS Configuration Utility
Page 33
Before you begin
You have displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube
host. See Access the PERC BIOS Configuration Utility on page 32.
Procedure overview
If you do not want to reboot the system, you can check drive security in the IPMI web interface. See
Check drive security in the IPMI web interface on page 34.
Procedure
1. Select the PERC H730P Mini controller and press Enter. The Virtual Disk Management screen
appears for the selected controller.
2. For virtual disks:
a) Select Disk Group: 0, RAID 1 for the CN-2400-E or Disk Group: 0, RAID 5 for the CN-5400-E and
review the Secured field to the right. "Yes" indicates that the virtual disk is secure.
b) Select Disk Group: 0, RAID 6 for the CN-2400-E or Disk Group: 0, RAID 60 for the CN-5400-E
and review the Secured field to the right.
c) If the secured field is "No," it means the disk group is not secured. Follow the steps in Secure disk
groups with a Security Key on page 35 to secure the disk.
3. For physical disks:
a) Press Control+N to display the Physical Disk Management screen.
b) Select a disk and review the Secured field to the right. "Yes" indicates that the disk is secure. The
Encryption Capable field indicates whether the disk supports encryption.
c) If the secured field is "No," it means the disk group is not secured. Follow the steps in Secure disk
groups with a Security Key on page 35 to secure the disk.
Check drive security in the BIOS33
Page 34
Check drive security in the IPMI web interface
Before you begin
You have configured the IPMI port. See Configure the IPMI port for remote management on page 28.
Procedure
1. Select Storage > Physical Disks and review the Security Status column.
2. Select Storage > Virtual Disks and review the Secured column.
Create a Security Key
Before you begin
You have displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube
host. See Access the PERC BIOS Configuration Utility on page 32.
Procedure
1. Select the PERC H730P Mini controller on the Virtual Disk Management screen.
2. Press F2.
3. Select Security Key Management > Create Key.
34Check drive security in the IPMI web interface
Page 35
4. Type a Security Key identifier in the Identifier field. The identifider is only a label for the Security Key.
5. Type a passphrase in the Passphrase field.
6. Record the passphrase in a secure location in case you need to recover it.
Caution:
You are required to specify the current passphrase when changing the passphrase or
when replacing the RAID controller. If you lose the passphrase, you must erase the disk
groups, which destroys all data on the underlying disks, and create a new Security Key.
7. Select OK to create the key and then select Yes to confirm.
Next steps
You can now secure the disk groups on the RAID controller. See Secure disk groups with a Security
Key on page 35.
Secure disk groups with a Security Key
Before you begin
You have completed these tasks:
•Created a Security Key for the RAID controller that is connected to the disk groups. See Create aSecurity Key on page 34.
•Displayed the PERC BIOS Configuration Utility on the computer connected to the OmniCube host. See
Access the PERC BIOS Configuration Utility on page 32.
•Ensured that the virtual disks are configured on the PERC H730P Mini RAID controller.
Procedure overview
The PERC H730P Mini RAID controller in an OmniCube CN-2400-E or a CN-5400-E system contains two
disk groups: The RAID1 (CN-2400-E) or RAID5 (CN-5400-E) disk group is on the SSD drives, which are
reserved for SimpliVity, and the RAID6 (CN-2400-E) or RAID60 (CN-5400-E) disk group is on the HDD
drives, which store user data.
Secure disk groups with a Security Key35
Page 36
Procedure
1. Use the arrow keys to select the RAID 1 (CN-2400-E) or RAID 5 (CN-5400-E) disk group under the
PERC H730P Mini controller.
2. Press F2.
3. Select Secure Disk Group and then select Yes to confirm.
4. Select the RAID 6 (CN-2400-E) or RAID 60 (CN-5400-E) disk group.
5. Press F2.
6. Select Secure Disk Group and then select Yes to confirm.
Results
Both disk groups and all virtual disks inside them are now secured with the Security Key.
Delete disk groups
Before you begin
36Delete disk groups
Page 37
You have completed these tasks:
•Migrated all virtual machines (VM) off of the OmniCube host.
•Displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube host. See
Access the PERC BIOS Configuration Utility on page 32.
Procedure overview
The PERC H730P Mini RAID controller in an OmniCube CN-2400-E or a CN-5400-E system contains two
disk groups: The RAID1 (CN-2400-E) or RAID5 (CN-5400-E) disk group is on the SSD drives, which are
reserved for SimpliVity, and the RAID6 (CN-2400-E) or RAID60 (CN-5400-E) disk group is on the HDD
drives, which store user data.
You delete a disk group to delete all of its virtual disks. You can also delete individual viritual disks from a
disk group.
Caution:
When you delete a disk group all data on the underlying physical disks is lost.
Procedure
1. Use the arrow keys to select the PERC H730P Mini controller.
2. Select the PERC H730P Mini controller on the Virtual Disk Management screen.
3. Select one of the disk groups.
4. Press F2 and select Delete Disk Group.
Delete disk groups37
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5. Press Enter and select Yes to confirm.
6. Select the other disk group and repeat Step 4 on page 37 and Step 5 on page 38 to delete it.
The disk groups and their virtual disks are deleted.
Change the passphrase for a Security Key
Before you begin
You have completed these tasks:
•Created a Security Key for the RAID controller on which you want to change the passphrase. See
Create a Security Key on page 34.
•Obtained the passphrase for the current Security Key.
•Displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube host. See
Access the PERC BIOS Configuration Utility on page 32.
Procedure
1. Select the PERC H730P Mini controller on the Virtual Disk Management screen.
2. Press F2.
3. Select Security Key Management > Change Key.
38Change the passphrase for a Security Key
Page 39
4. Select Yes to confirm that you want to change the Security Key for the selected controller.
5. Type a new passphrase and then type the old passphrase.
6. Record the new passphrase in a secure location in case you need to recover it.
7. Select OK.
8. Select Yes to confirm.
Delete a Security Key
Before you begin
You have completed these tasks:
•Migrated all virtual machines (VM) off of the OmniCube host.
•Displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube host. See
Access the PERC BIOS Configuration Utility on page 32.
Procedure
1. Use the arrow keys to select the PERC H730P Mini controller.
2. Select the PERC H730P Mini controller on the Virtual Disk Management screen.
Delete a Security Key39
Page 40
3. Select one of the disk groups.
4. Press F2 and select Delete Disk Group.
5. Press Enter and select Yes to confirm.
6. Select the other disk group and repeat Step 4 on page 40 and Step 5 on page 40 to delete it.
7. Select the PERC H730P Mini controller.
8. Press F2 and select Delete Key.
9. Select Yes to confirm deleting the key.
The key is deleted and the disks are now erased.
Erase a drive that supports encryption
Before you begin
You have completed these tasks:
40Erase a drive that supports encryption
Page 41
•Displayed the PERC BIOS Configuration Utlity on the computer connected to the OmniCube host. See
Access the PERC BIOS Configuration Utility on page 32.
•Confirmed that the drive you want to erase does not contain secured virtual disks. See Check drivesecurity in the BIOS on page 32.
•Deleted all secured disk groups and virtual disks on the drive you want to erase. See Delete disk
groups on page 36.
Procedure overview
You erase a secured drive to permanently remove all security attributes from the drive, including a lost
or forgotten passphrase. For example, if you replace a drive and the replacement drive is secured with a
passphrase for a Security Key on a different controller, the new RAID controller cannot access or secure
the drive. You must erase the replacement drive to remove the security attributes and then secure it using
the key from the current RAID controller.
Caution:
When you erase a drive all of its data is lost.
Procedure
1. Select the PERC H730P Mini controller on the Virtual Disk Management screen.
2. Press Control+N to display the Physical Disks.
3. Select the drive to be erased.
4. Press F2 and select Instant Secure Erase.
Erase a drive that supports encryption41
Page 42
5. Press Enter and select Yes to confirm.
The drive is erased and its security attributes are deleted.
42Erase a drive that supports encryption
Page 43
Chapter 5: Server troubleshooting
This section contains the following topics:
•About diagnostic indicators
•About drive monitoring
•About power supply monitoring
•Accelerator card monitoring
•About network interface monitoring
You can use the diagnostic indicators and LEDs to identify problems with the server hardware. For assistance
with resolving hardware problems, such as a component failing, contact Customer Support.
About diagnostic indicators
The left side of the front panel displays diagnostic indicators that glow when the system is functioning
properly and when a hardware-related error occurs. The indicators can help you correct problems before
they affect service levels.
Figure 13: Diagnostic indicator LEDs
Table 6: Diagnostic indicator descriptions
CalloutDescription
1Health indicator. If no errors exist, the indicator is steady blue. The health
indicator flashes amber during startup or if a system component, such as a fan
or disk, fails.
2Temperature indicator. The indicator flashes amber if the system experiences a
thermal error. For example, a temperature is out of range or fan fails.
3Memory indicator. The indicator flashes amber if a memory error occurs.
About diagnostic indicators43
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CalloutDescription
4Drive indicator. The indicator flashes amber if a drive fails. Green indicates
normal operation.
5Electrical indicator. The indicator flashes amber if the system experiences an
electrical error. For example, voltage is out of range or a power supply or voltage
regulator fails.
6PCIe indicator. The indicator flashes amber if a PCIe card experiences an error
About drive monitoring
The LEDs on the front of each drive indicate when there is a problem, such as a failed or failing drive. If
a drive fails or is failing, contact Customer Support to obtain a replacement drive of the same type, size,
and speed.
The drives in the front panel store user and Federation data and are protected by RAID, which provides
different protection for each model:
•A CN-2200, CN-2400, or CN-2400-E model can tolerate up to two hard disk drive (HDD) failures and
one solid state drive (SSD) failure simultaneously without data loss.
•A CN-2400-F, containing all flash drives can tolerate a single solid state drive (SSD) failure without
data loss.
•A CN-3400-F, containing all flash drives can tolerate up to two solid state drive (SSD) failures
simultaneously without data loss.
•A CN-3400, CN-5400 or CN-5400-E can tolerate up to 4 HDD failures and one solid state drive (SSD)
failure simultaneously without data loss. Of the four HDDs, two of the drives must be in one drive set
and the other two drives must be in a different drive set.
•A CN-5400-F, containing all flash drives can tolerate up to 2 solid state drive (SSD) failures
simultaneously without data loss.
44About drive monitoring
Page 45
Figure 14: Disk drive LEDs
Each hard drive carrier has two LEDs that indicate the state of the physical disk. The green activity LED
(callout 1) flashes whenever the drive is accessed. The bicolor (green/amber) LED (callout 2) provides
drive status information as detailed below.
Table 7: Drive status LED
LEDPatternDrive Status Description
Flashes green two times per secondIdentifying the drive or preparing the
drive for removal.
OffDrive ready for removal, or all drives
are initializing. The drive status LED
remains off while the drives are
initializing after the system is turned on.
Do not remove a drive during this time.
Flashes green, amber, and offPredicted drive failure.
Flashes amber four times per secondDrive failed.
Flashes green every 2 secondsDrive is rebuilding.
Steady greenDrive is online.
About drive monitoring45
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LEDPatternDrive Status Description
Table 8: Drive activity LEDs
LEDPatternDrive Activity Description
Flashes green three seconds, amber
three seconds, and off six seconds
OffNot lit—No disk activity.
Flashing or steady greenRead/Write (I/O) activity is occurring.
About front drive numbering
The front drives are numbered for identification purposes.
Rebuild aborted.
Figure 15: CN-1400 drive numbering
The drives are numbered 0 to 23. Drives 0 to 1 are SSDs and drives 2 to 5 are HDDs.
Figure 16: CN-2400 drive numbering
The drives are numbered 0 to 23. Drives 0 and 1 are SSDs and drives 2 to 9 are HDDs. Drives 10 to 23
are empty.
46About drive monitoring
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Figure 17: CN-3400 and CN-5400 drive numbering
The drives are numbered 0 to 23. Drives 0 to 3 are SSDs and drives 4 to 23 are HDDs.
Figure 18: CN-2400-F drive numbering
The drives are numbered 0 to 23. Drives 0 to 4 are SSDs and drives 5 to 23 are empty.
Figure 19: CN-3400-F drive numbering
The drives are numbered 0 to 23. Drives 0 to 9 are SSDs and drives 10 to 23 are empty.
Figure 20: CN-5400-F drive numbering
The drives are numbered 0 to 23. Drives 0 to 13 are SSDs and drives 14 to 23 are empty.
About drive monitoring47
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About power supply monitoring
The LEDs on the front of each power supply indicate when there is a problem, such as a failed or failing
power supply. If a power supply fails, contact Customer Support for a replacement of the same type and
wattage.
Figure 21: Power supply LED
In the image above, the green arrow shows the power supply handle. Each power supply has an
illuminated translucent handle that indicates whether power is present or whether a power fault has
occurred.
Table 9: Power supply LED States
LEDState
Off: Indicates no power present.
Steady green: Indicates the power supply is connected to a power
source, is operational, and is supplying power to the system.
Flashing yellow: Indicates a problem with the power supply.
Flashing green: When performing a hot swap of a power supply, with the
system powered on, this LED indicates that the newly-installed power
supply is not compatible with the installed power supply.
Accelerator card monitoring
The LEDs on an Accelerator card indicate when there is a problem with the card. If an Accelerator card
fails, contact Customer Support to have it replaced.
Figure 22: Accelerator card LEDs
An Accelerator card has two LEDs:
48About power supply monitoring
Page 49
•LED 1 glows or flashes green or yellow.
•LED 2 glows or flashes green or red.
Table 10: Accelerator card LED states
Server stateLED 1LED 2Description
Power up
POST
Off Off
Off Steady red
Off Flashing red (1
on, 1 off)
Off Steady green
Off Flashing red
(2 on, 2 off)
Flashing yellow
Steady yellow
Steady green
Steady red
PCIe 12 V power is not present.
Configuration Programmable Logic
Device (CPLD) detected power failure
or CPLD is not configured.
Field Programmable Gate Array
(FPGA) configuration error detected
or configuration failed.
FPGA configuration is complete.
Firmware is not responding to health
check.
Power-on self test (POST) is
executing.
POST failed.
Steady green Steady green
State save
Steady yellow
State restore
Flashing yellow
Upgrade
Flashing green Flashing green
HostCtrl
Flashing yellow
Accelerator card not detected
If the server is unable to detect or communicate with an Accelerator card after you power on the server or
perform a server firmware upgrade, you see error conditions.
Flashing green
Flashing green
Flashing red
Normal operation (passed POST).
NVRAM state save is in progress.
NVRAM state restore is in progress.
Firmware upgrade is in progress.
Not in service. Contact CustomerSupport for a replacement.
Accelerator card monitoring49
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Table 11: Accelerator card error conditions
LED numberInitial stateError state (Host Ctrl)
After power onAfter software upgrade1
Off
Steady green Off
2
Off
A firmware load error on the Accelerator card might have caused the problem. You can try to correct this
problem:
1. Shut down the server.
2. Wait three minutes for the server to fully shutdown.
3. Restart the server.
This prompts the Accelerator card to revert to its backup firmware.
Steady yellow Flashing yellow
Revert an Accelerator card to its backup firmware
Procedure overview
A firmware load failure on the Accelerator card can prevent the card from communicating with the
OmniStack server. You can try to correct this problem by reverting to the backup firmware. Shutting down
the server, waiting 3 minutes for the server to fully shutdown, and then restarting the server, prompts the
Accelerator card to fail and use its backup firmware. If both LEDs on the Accelerator card are not glowing
steady green or the server fails to return to normal operation, contact Customer Support.
Procedure
1. In your hypervisor management interface, locate the OmniCube host or OmniStack host with the
problem Accelerator card.
2. Shut down and power off the server as explained in the SimpliVity OmniStack Administrator Guide.
3. Wait three minutes until both LEDs have stopped glowing, which indicates that the capacitors on the
Accelerator card have fully discharged.
4. Power on the server.
5. Wait for the server to fully boot.
6. Verify that both LEDs on the Accelerator card are glowing steady green.
7. Verify that there are no error conditions reported for the host in the hypervisor management interface.
About network interface monitoring
The LEDs on the network interface cards (NIC) indicate when there is a problem with the NIC or one of its
ports. If a network interface fails, contact Customer Support to have it replaced.
50About network interface monitoring
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Figure 23: Network interface LEDs
The image above displays the following interfaces:
•Network interfaces 1 and 2 are 10GbE (callout 1).
•Network interfaces 3 and 4 are 1GbE (callout 2).
Table 12: 10GB interface LED states
Link Status (top LED)Activity Status (bottom LED) Description
Off Off
Off Flash green
Steady green Off
Table 13: 1GB interface LED states
Link Status (left LED)Activity Status (right LED)Status Description
No network connection.
Sending or receiving network
data.
Connected to the network.
Off Off
Green Off
Amber
Off Flash green
Off
No network connection.
Connected to the network at
maximum port speed.
Connected to the network at
less than maximum port speed.
Sending or receiving network
data.
About network interface monitoring51
Page 52
Chapter 6: Drive maintenance
This section contains the following topics:
•Drive maintenance guidelines
•Remove a drive
•Remove a secured drive
•Install a drive
•Install and secure a drive
If a disk drive fails, replace it as soon as possible to avoid data loss.
Drive maintenance guidelines
•You can replace a single failed or failing drive without disrupting operations.
•When replacing an encrypted disk drive, the replacement drive must be unsecured. When installed,
the replacement drive is secured automatically using the existing Security Key. If the replacement drive
is secured with a key not used in the server, you must erase the drive, which destroys all data on the
physical disk, before the server can use it.
•Do not remove a drive until you are ready to replace it.
•Replace drives only with drives of the same size, speed, and type. For information on supported
replacement drives and the required firmware revision, contact Customer Support.
•Store drives properly. Store replacement drives in the packaging in which they were shipped. Do not
stack drives or place anything on top of a drive.
•Protect drives from electrostatic discharge. Wear an electrostatic wrist strap when handling a drive,
unless it is protected from electrostatic discharge.
•Handle drives carefully. Hold a drive only by the plastic part of the carrier or the handle. Do not drop or
jolt a drive or force a drive into a drive slot.
•Do not leave a drive slot empty. Each drive slot must contain a drive or a blank carrier. Operating the
server with an empty drive slot voids your warranty and support contract.
•Do not remove a drive from its carrier unless instructed by Customer Support.
•Keep shipping material. Return a failed drive to Customer Support in the packaging in which the
replacement drive was shipped. Shipping drives in unauthorized packaging may void your warranty.
Drive replacement requires a RAID rebuild, which might take some time to complete on a server that
contains many GB or TB of data. The rebuild might proceed faster if you complete these tasks:
•Quiesce I/O or do the replacement operation at a time when I/O is minimal.
•Shut down VMs.
•Migrate VMs to an alternate host.
NOTE:
You can use the LEDs to monitor the RAID rebuild status.
For more information about how to complete the tasks, see the SimpliVity OmniStack Administrator Guide.
52Drive maintenance guidelines
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Remove a drive
You remove a hard disk drive (HDD) or solid state drive (SSD) that has failed, or is failing, to replace it
with a new drive. Replace a problem drive as soon as possible.
Before you begin
You have completed these tasks:
•Obtained a replacement drive of the same type, speed, and capacity of the drive you are removing.
•Read the guidelines for maintaining disk drives.
•Read the guidelines for protecting hardware from electrostatic discharge.
Procedure overview
•Do not leave a drive slot empty. Do not remove a failed drive unless you have a replacement drive or
blank carrier ready to install.
•If the system is in a Federation, using incompatible drives might cause your Federation to function
incorrectly. Also, performance might be degraded while a drive is defective or missing.
Procedure
1. Remove the bezel, if necessary.
2. Examine the drive LEDs to identify the failed drive.
3. Press the release button to release the drive handle.
Figure 24: Drive removal
4. Rotate the handle downward, disengaging the drive from the slot.
5. Grasp the edge of the plastic drive carrier and slowly remove the drive from the slot.
6. Place the drive on a surface that is protected from electrostatic discharge.
7. Install the replacement drive or a drive filler.
Remove a drive53
Page 54
Remove a secured drive
Before you begin
You have completed these tasks:
•Obtained an unsecured replacement drive of the same type, speed, and capacity of the drive you are
removing. You cannot replace a secured drive with a drive that does not supported encryption or a
drive that is currently secured by a different controller. If the drive is currently secured, you must erase
the drive to delete its security attributes. See Erase a drive that supports encryption on page 40.
•Read the guidelines for maintaining disk drives. See Drive maintenance guidelines on page 52.
•Read the guidelines for protecting hardware from electrostatic discharge. See About electrostatic
discharge on page 17.
Procedure overview
NOTE:
If the system is in a Federation, using incompatible drives might cause your Federation to
function incorrectly. Also, performance might be degraded while a drive is defective or missing.
Procedure
1. Remove the bezel, if necessary.
2. Examine the drive LEDs to identify the failed drive.
3. Press the release button to release the drive handle.
4. Rotate the handle downward, disengaging the drive from the slot.
5. Grasp the edge of the plastic drive carrier and slowly remove the drive from the slot.
If you are monitoring using the SimpliVity interface, the RAID set has a status of Degraded.
6. Place the drive on a surface that is protected from electrostatic discharge.
7. Install the replacement drive.
54Remove a secured drive
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Install a drive
You install a drive to replace a failed, or failing, hard disk drive (HDD) or solid state drive (SSD). You can
also install a drive filler, since the drive bay cannot be empty after the failed drive is removed.
Before you begin
You have completed these tasks:
•Obtained a replacement drive of the same type, speed, and capacity of the drive you are replacing.
•Read the guidelines for maintaining disk drives and verified that all backup operations have completed.
•Read the guidelines for protecting hardware from electrostatic discharge.
•Removed the failed drive.
Procedure overview
NOTE:
Do not leave a drive slot empty. Do not remove a failed drive unless you have a replacement
drive or blank carrier ready to install.
Procedure
1. Carefully remove the replacement drive from its packaging.
2. Hold the drive by the edge of the plastic drive carrier and press the release button to release the drive
handle.
Figure 25: Drive installation
3. Rotate the handle outwards.
4. Orient the drive properly.
5. Grasp the edge of the plastic drive carrier and slowly insert the drive into the slot, stopping when you
feel resistance.
6. Simultaneously rotate the handle upward and press the drive completely into the slot.
7. Examine the LEDs and event messages to ensure the drive is operational.
Install a drive55
Page 56
Install and secure a drive
Before you begin
You have completed these tasks:
•Obtained an unsecured replacement drive of the same type, speed, and capacity of the drive you are
removing. You cannot replace a secured drive with a drive that does not support encryption or a drive
that is currently secured by a different controller. If the drive is currently secured, you must erase the
drive to delete its security attributes. See Erase a drive that supports encryption on page 40.
•Read the guidelines for maintaining disk drives. See Drive maintenance guidelines on page 52.
•Read the guidelines for protecting hardware from electrostatic discharge. See About electrostaticdischarge on page 17.
•Removed the failed drive. See Remove a secured drive on page 54.
Procedure
1. Carefully remove the replacement drive from its packaging.
2. Hold the drive by the edge of the plastic drive carrier and press the release button to release the drive
handle.
3. Rotate the handle outwards.
4. Orient the drive properly.
5. Grasp the edge of the plastic drive carrier and slowly insert the drive into the slot, stopping when you
feel resistance.
6. Simultaneously rotate the handle upward and press the drive completely into the slot.
NOTE:
The RAID set begins rebuilding to configure the new drive and to ecrypt it with the existing
Security Key.
7. Examine the LEDs on the drive and event messages to ensure the drive is operational.
56Install and secure a drive
Page 57
Chapter 7: Power supply maintenance
This section contains the following topics:
•Power supply maintenance guidelines
•Remove a power supply
•Install a power supply
Each server has two hot-swappable power supplies. If a power supply fails, replace it as soon as possible.
Power supply maintenance guidelines
Follow these guidelines for maintaining power supplies:
•You can replace a power supply without disrupting operations if an alternate, functioning power supply
is installed and connected to power.
•For proper cooling, do not leave a power supply slot open. Do not remove a power supply until you are
ready to replace it.
•A server can operate with only one functioning power supply. However, replace a failed or failing power
supply as soon as possible.
•Replace a power supply only with a power supply of the same type and wattage. Contact Customer
Support for replacement power supplies.
Remove a power supply
You replace a failed, or failing, power supply as soon as possible.
Before you begin
You have completed these tasks:
•Obtained a replacement power supply of the same type and wattage.
•Read the guidelines for maintaining power supplies.
•Read the guidelines for protecting hardware from electrostatic discharge.
Procedure overview
Please note the following information before you begin the procedure.
NOTE:
Do not leave a power supply slot empty. Do not remove a failed power supply unless you have a
replacement power supply that is ready to install.
Procedure
1. Identify the failed power supply.
2. Disconnect the power cable from the power supply.
3. Grasp the power supply handle and the orange release latch and press the release latch to the right.
Power supply maintenance guidelines57
Page 58
4. Gently pull the power supply from the slot.
Install a power supply
You install a power supply to replace a failed or failing power supply.
Before you begin
You have completed these tasks:
•Obtained a replacement power supply of the same type and wattage.
•Read the guidelines for maintaining power supplies.
•Read the guidelines for protecting hardware from electrostatic discharge.
Procedure
1. Carefully remove the replacement power supply from its packaging.
2. Orient the power supply so that the release latch is in the appropriate location, depending on the
model.
3. Slide the power supply into the empty slot until you hear the latch engage.
58Install a power supply
Page 59
4. Ensure that the power supply is fully inserted and locked in by the orange, spring-loaded clip.
5. Connect and secure the power cable to the new power supply.
6. Ensure that the power cables are fully inserted at both ends.
7. Ensure that the new power supply is operational.
8. Examine the LEDs and event messages to ensure the power supply is operational.
Install a power supply59
Page 60
Chapter 8: Network cabling options
This section contains the following topics:
•About the 10GbE-only network configuration
•About the direct-connected network configuration
•About the switch-connected network configuration
There are different options for cabling the 10 GbE and 1 GbE interfaces used for the SimpliVity networks:
Storage, Federation, and Management. You select the configuration that best meets the needs of your
environment.
About the 10GbE-only network configuration
The minimum network configuration for a Federation with two OmniCube servers uses redundant 10GbE
connections to two 10GbE switches. This configuration uses VLANs to separate the SimpliVity Storage,
Federation, and Management networks.
Figure 26: 10GbE-only network configuration
Configuration guidelines:
•For each system, use two SFP+ Direct Attach active cables (or Fiber Optic cables) to connect the
10GbE ports to different 10GbE switches.
60About the 10GbE-only network configuration
Page 61
•Separate the SimpliVity Storage, Management, and Federation networks by using VLANs on each
switch.
About the direct-connected network configuration
A direct-connected network configuration for a Federation with two OmniCube servers uses the 10GbE
connections for the SimpliVity Storage and Federation networks. It uses redundant 1GbE connections to
1GbE switches for the Management network.
•You cannot use direct connections for the Storage and Federation networks if you have three or more
systems in a Federation datacenter or cluster.
•For each system, you can use two SFP+ Direct Attach (Twinax) cables (or Fiber Optic cables) to
directly connect the 10GbE network interfaces.
•For each system, you use two network cables to connect the 1GbE network interfaces to different
1GbE switches. 1GbE cables are not provided in the shipping carton.
•Port 1 on system A must connect to port 1 on system B and port 2 on system A must connect to port 2
on system B.
About the direct-connected network configuration61
Page 62
About the switch-connected network configuration
The switch-connected network configuration for a Federation with two OmniCube servers uses redundant
connections to 10GbE switches for the SimpliVity Storage and Federation networks. It uses redundant
1GbE connections to 1GbE switches (shown below) or, optionally, 10GbE connections to 10GbE switches
for the Management network.
•For each system, use two SFP+ Direct Attach active cables (or Fiber Optic cables) to connect the
10GbE network interfaces to different 10GbE switches.
•For each system, use two network cables to connect the 1GbE network interfaces to different 1GbE
switches. 1GbE cables are not provided in the shipping carton.
62About the switch-connected network configuration
Page 63
Appendix A: Additional information
This section contains the following topics:
•SimpliVity documentation conventions
•SimpliVity terminology
•Websites
•Regulatory information
•Documentation feedback
SimpliVity documentation conventions
SimpliVity documentation uses the following conventions to assist your reading.
General formatting
Monospace font represents a command line syntax, file path, system output, or similar code.
Italic font represents a user-defined name or variable.
Bold font represents a user interface element, such as a button or tab, with which a user interacts.
Command Line formatting
SimpliVity documentation uses the following format for CLI commands:
command --option variable
where
•command is the name of the command and should be typed exactly as shown.
•--option is a command option and should be typed exactly as shown.
•variable is an option variable and should be replaced with the required value.
Informational Alerts
WARNING:
Alerts you to the risk of bodily injury, damage to hardware or software, loss of
warranty, or loss of data.
Caution:
Alerts you to the risk of data unavailability or possible issues with regard to security,
performance, or configuration.
NOTE:
Indicates information that is supplemental or that may require additional attention.
SimpliVity documentation conventions63
Page 64
Tip:
Provides helpful information such as best practices.
SimpliVity terminology
The following table contains SimpliVity terms and definitions.
TermDefinition
ArbiterSimpliVity software that runs on the computer hosting the hypervisor
management server or a different Windows computer that the OmniStack hosts
can access. It is required in every SimpliVity Federation. The arbiter provides
the tie-breaking vote when a cluster contains an even number of OmniStack
hosts. For example, if a cluster contains two OmniStack hosts and one of those
OmniStack hosts loses connectivity with the cluster, the arbiter acts as the
tie breaker. (Note that an arbiter must not run on any host within a cluster for
which it is acting as a tie breaker.) (Previously referred to as an OmniCube
Arbiter.)
clusterA collection of OmniStack hosts that share resources and provide high
availability and load-balancing services.
datastoreA container for virtual machine files, including compute and storage resources.
For more information, refer to your hypervisor documentation.
failure domainA collection of OmniStack hosts that serve as potential high availability failover
targets for each other for purposes of high availability and disaster recovery.
FederationA collection of SimpliVity OmniStack hosts and clusters managed in a single
globally-unified management domain.
guest operating
system
hostA generic term referring to either an OmniStack host or a standard host.
OmniCube hostSee OmniStack host.
OmniStack Accelerator A SimpliVity PCI card that provides non-volatile memory, accelerated
OmniStack hostA host (server) containing an OmniStack Accelerator card that communicates
The operating system that runs inside a virtual machine.
compression, and cryptographic hashing. The Accelerator card communicates
with the OmniStack software.
with the OmniStack software and some supported virtualization software. An
OmniStack host uses a dedicated virtual machine called the OmniStack Virtual
Controller, which runs the OmniStack software. (Previously referred to as an
OmniCube host.)
64SimpliVity terminology
Page 65
TermDefinition
OmniStack softwareThe SimpliVity software running on the OmniStack Virtual Controller.
(Previously referred to as OmniCube software.)
OmniStack Virtual
Controller
(OVC)
SimpliVity ArbiterSee Arbiter.
standard hostA host that does not contain OmniStack software.
virtual machine
(VM)
Websites
General websites
•Hewlett Packard Enterprise Information Library:
http://www.hpe.com/info/EIL
•Single Point of Connectivity Knowledge (SPOCK) Storage compatibility matrix:
http://www.hpe.com/storage/spock
A virtual machine dedicated to the OmniStack host that runs the OmniStack
software. This software in turn communicates with the OmniStack Accelerator
card inside the host. (Previously referred to as an OmniCube Virtual Controller.)
A virtual computer environment that runs a guest operating system and
associated application software. Multiple virtual machines can operate
concurrently on the same physical host machine.
•Storage white papers and analyst reports:
http://www.hpe.com/storage/whitepapers
•Customer Self Repair:
http://www.hpe.com/support/selfrepair
•Insight Remote Support:
http://www.hpe.com/info/insightremotesupport/docs
Regulatory information
To view the regulatory information for your product, view the Safety and Compliance Information for
Server, Storage, Power, Networking, and Rack Products, available at the Hewlett Packard Enterprise
Support Center:
Hewlett Packard Enterprise is committed to providing our customers with information about the chemical
substances in our products as needed to comply with legal requirements such as REACH (Regulation EC
No 1907/2006 of the European Parliament and the Council). A chemical information report for this product
can be found at:
http://www.hpe.com/info/reach
Websites65
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For Hewlett Packard Enterprise product environmental and safety information and compliance data,
including RoHS and REACH, see:
http://www.hpe.com/info/ecodata
For Hewlett Packard Enterprise environmental information, including company programs, product
recycling, and energy efficiency, see:
http://www.hpe.com/info/environment
Documentation feedback
Hewlett Packard Enterprise is committed to providing documentation that meets your needs. To help us
improve the documentation, send any errors, suggestions, or comments to Documentation Feedback
(mailto:docsfeedback@hpe.com). When submitting your feedback, include the document title, part
number, edition, and publication date located on the front cover of the document. For online help content,
include the product name, product version, help edition, and publication date located on the legal notices
page.
66Documentation feedback
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