OpenFlex™ F3100 and E3000
1ET2050
Version 1.0
October 2019
User GuideTable of Contents
Table of Contents
Copyright................................................................................................................................................................................... iv
Points of Contact.......................................................................................................................................................................v
OpenFlex™ F3100 and E3000.................................................................................................................................................. 2
List of Compatible Devices............................................................................................................................................... 4
System Architecture Overview................................................................................................................................................. 5
System High Speed Data Ingest Architecture.................................................................................................................5
System Thermal and Cooling............................................................................................................................................5
OpenFlex F3100 and E3000 Specification Summary.............................................................................................................. 7
Restrictions and Limitations.....................................................................................................................................................16
Site Requirements.....................................................................................................................................................................17
Power Requirements......................................................................................................................................................... 17
Thermal and Cooling Requirements............................................................................................................................... 18
Fan Module...............................................................................................................................................................................23
Fan Module Specifications............................................................................................................................................... 23
List of Field/Customer Replaceable Units.............................................................................................................................28
Power Cycling................................................................................................................................................................... 74
Part Replacement.....................................................................................................................................................................81
Fan Module Replacement................................................................................................................................................ 82
Power Connections................................................................................................................................................................ 136
Power Cords........................................................................................................................................................................... 136
Safety and Service..................................................................................................................................................................137
Safety Warnings and Cautions.............................................................................................................................................. 138
Europe (CE Declaration of Conformity)................................................................................................................................140
FCC Class A Notice............................................................................................................................................................... 140
ICES-003 Class A Notice—Avis NMB-003, Classe A........................................................................................................... 140
Japanese Compliance Statement, Class A ITE.................................................................................................................... 140
ii
User GuideTable of Contents
KCC Notice (Republic of Korea Only), Class A ITE............................................................................................................. 140
Taiwan Warning Label Statement, Class A ITE.....................................................................................................................141
iii
User GuideCopyright
Copyright
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Technical information about this product is available by contacting your local Western Digital representative
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Western Digital may have patents or pending patent applications covering subject matter in this document.
The furnishing of this document does not give you any license to these patents.
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One MB is equal to one million bytes, one GB is equal to one billion bytes, one TB equals 1,000GB (one trillion
bytes) and one PB equals 1,000TB when referring to storage capacity. Usable capacity will vary from the raw
capacity due to object storage methodologies and other factors.
References in this publication to Western Digital products, programs or services do not imply that Western
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Western Digital
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San Jose, CA 95119
For further assistance with a Western Digital product, contact Platform Engineering technical support. Please
be prepared to provide the following information: part number (P/N), serial number (S/N), product name
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v
Western Digital
Overview
In This Chapter:
- OpenFlex™ F3100 and E3000.......................2
- System Architecture Overview.....................5
- Restrictions and Limitations........................ 16
- Site Requirements.........................................17
1
User Guide
1.1 OpenFlex™ F3100 and E3000
The OpenFlex™ F3100 and E3000 is a 3U rack
mounted data storage enclosure built on the
OpenFlex platform. OpenFlex is Western Digital’s
architecture that supports Open Composable
Infrastructure (OCI). The OpenFlex F3100 and
E3000 are fabric devices that leverage this OCI
approach in the form of disagreggated data storage
using NVMe-over-Fabrics (NVMe-oF). NVMe-oF is
a networked storage protocol that allows storage
to be disaggregated from compute to make that
storage widely available to multiple applications
and servers. By enabling applications to share a
common pool of storage capacity, data can be easily
shared between applications, or needed capacity
can be allocated to an application regardless of location. Exploiting NVMe device-level performance,
NVMe-oF promises to deliver the lowest end-to-end latency from application to shared storage. NVMeoF enables composable infrastructures to deliver the data locality benefits of NVMe DAS (low latency, high
performance) while providing the agility and flexibility of sharing storage and compute.
The maximum data storage capacity is 614TB * when leveraging a full set of 10 F3100 fabric devices.
The enclosure runs on an input voltage of 200V - 240V and consumes ~1400W of power under typical
conditions. It requires a maximum of 1600W at full load.
1. Overview
1.1 OpenFlex™ F3100 and E3000
Composable Infrastructure
An emerging category of
datacenter infrastructure that
seeks to disaggregate compute,
storage, and networking fabric
resources into shared resource
pools that can be available
for on-demand allocation (i.e.,
“composable”). Composability
occurs at the software level,
disaggregation occurs at the
hardware level using NVMe™over-Fabric—will vastly improve
compute and storage utilization,
performance, and agility in the
data center.
• 614TB
• 12GBps NVMe-oF over QSFP28
• 68.5 kg / 151.1 lbs.
*
Cables
OpenFlex
OpenFlex is Western Digital’s
architecture that supports Open
Composable Infrastructure
through storage disaggregation
– both disk and flash natively
attached to a scalable fabric.
OpenFlex does not rule out
multiple fabrics, but whenever
possible, Ethernet will be used as
a unifying connect for both flash
and disk because of its broad
applicability and availability.
• 200V - 240V Input Voltages
• 3U Form Factor
• Hot-swappable PSUs and Fans
Open Composable API
Western Digital's new Open
Composable API is designed
for data center composability.
It builds upon existing industry
standards utilizing the best
features of those standards as
well as practices from proprietary
management protocols.
• Dual 1600W PSUs
• Operational Temperature: 5°C to
35°C
• Dynamic Provisioning Supported
* Max storage capacity depends on device version and device configuration.
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User Guide
1.1.1
1.1.2
Servicing Features
The OpenFlex F3100 and E3000 are equipped with several features that make servicing simpler and safer.
Every CRU component has been designed with toolless removal features.
The BMC Module, Fan Module, PSU, and F3100 devices are all hotswappable components. This document
provides full instructions on how these features operate in the Management (page 29) section.
Composable Infrastructures
An emerging category of datacenter infrastructure that seeks to disaggregate compute, storage, and
networking fabric resources into shared resource pools that can be available for on-demand allocation (i.e.,
“composable”). Composable occurs at the software level, disaggregation occurs at the hardware level.
Western Digital’s vision for Open Composable Infrastructures is based on four key pillars:
• Open
1. Overview
1.1 OpenFlex™ F3100 and E3000
◦ Open in both API and form factor
◦ Designed for robust interoperability of multi-vendor solutions
• Scalable
◦ Ability to compose solutions at the width of the network
◦ Enable self-organizing systems of composable elements that communicate horizontally
• Disaggregated
◦ Pools of resources available for any use case that is defined at run time
◦ Independent scaling of compute & storage elements to maximize efficiency & agility
Extensible
•
◦ Inclusive of both disk and flash
◦ Entire ecosystem of composable elements managed & orchestrated using a common API
framework
◦ Prepared for yet-to-come composable elements – e.g., memory, accelerators
1.1.2.1 Open Composable
The Western Digital Open Composable Infrastructure (OCI) uses a common API to manage and
coordinate with all fabric-attached storage including pools of flash and disk. The infrastructure also
supports the management of networking and compute resources. The API is used for all managed
elements to accelerate the ability to use disaggregated resources where components are no longer subcomponents, but core elements connected to the network.
1.1.2.2 Open Composable API (OCAPI)
Western Digital’s Open Composable API is a RESTful interface for OpenFlex that enables a Unified Fabric
Control Plane for Storage Fabric Devices. This allows for composing disaggregated storage resources—
with compute, networking, and memory—into virtual systems in the future. These virtual systems will be
dynamically provided to the right application at the right time, ensuring SLAs can be met automatically.
• Self-discovery of other locally-available resources configurable using the Open Composable API for
OpenFlex
1.1.2.3 OCGUI
The Open Composable Graphical User Interface (OCGUI) is the graphical representation of all of the data
shared up to the fabric by the OCAPI. This GUI is presented to the user by browsing to the IP address
of any device on the fabric. The GUI has a "command-center" design layout that presents all vital health,
utilization, and performance statistics related to devices on the network at a glance.
1.1.3
NVMe-oF
1. Overview
1.1 OpenFlex™ F3100 and E3000
1.1.4
Non-Volatile Memory Express over Fabric (NVMe-oF) is one of the primary enabling technologies for the
OpenFlex platform. NVMe-oF enables the high-speed, low-latency storage performance of NVMe over
a fabric switching network. OpenFlex products drive network communications across the fabric using
100Gb/s Ethernet protocol. This allows for a complex network of computing devices to all share the same
storage resources with very high performance.
Supported SKUs
The following table lists the versions of this Western Digital product that are supported by this document.
The system main data ingest architecture uses two separate 50G Ethernet connections each on a dual
QSFP28 connector on the rear I/O of the chassis. This completes the connection from the device that is
inserted into a chassis slot, through the backplane into the QSFP connectors. The architecture supports
the hot swap nature of the devices and do not require any sort of shut down or disconnection before
servicing. Each 100G Ethernet connection is split in half at the QSFP28 connectors resulting in 50G per
connector allowing for dual port functionality with the device.
Part
Number
1.2.2
Figure 2: System High Speed Data Ingest
System Thermal and Cooling
The following image displays the thermal zones as viewed from the top of the enclosure. When viewing
the enclosure from the front, the right device zone is on the right-hand side and the left device zone is
on the left-hand side. When viewing the enclosure from the rear, the order is reversed. Each of the two
thermal zones contains major components that are thermally maintained within their specific zone.
* Bandwidth obtained by sequential read
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User Guide
Figure 3: System Thermal Zones
1. Overview
1.2 System Architecture Overview
The E3000 uses a base algorithm, called a thermal algorithm, to control the overall thermal environment of
the system. The system is mechanically separated into two thermal zones to support efficient cooling of
the system components in order to achieve the intended performance of the system. The thermal zones
are split into device zones (the left and right side of the enclosure) and center zone when standing at the
front of the system. The device thermal zones contain up to ten devices or device blanks each that are
cooled by four fan modules that are located directly behind the devices. The four fan modules behind the
devices maintain the cooling for devices contained within the device slot installed into A through J. The
center thermal zone contains the BMC module that is cooled by the fans contained in the redundant PSUs
the are located directly behind the BMC module. The different thermal zones are designed to maintain
proper thermal cooling across the entire system. During servicing the system increases the speed of the
fan modules and PSU fans to maintain a balanced thermal load.
1.2.2.1 System Thermal Algorithm
The System Thermal Algorithm is designed to use temperature sensors and defined thresholds to
determine if the algorithm will select critical, increase, decrease, or no change as the device decision.
The System Thermal Algorithm uses the concept of priorities to ensure the proper function of the system.
As a result, any critical fault results in the system ramping the fans to maximum RPMs to protect the
hardware for the duration of the fault. The fault will remain in a critical state until the fault is fully resolved
and by bringing the temperature back within the specified defined thresholds.
The System Thermal Algorithm contains minimum and maximum thresholds related to the ambient
temperature of the system. The system is designed to maintain a maximum ambient temperature of 35°C.
Exceeding 35°C may result in damage to the hardware and potentially void the product warranty. These
thresholds allow for the best possible operating conditions. If the system goes outside of the minimum or
maximum threshold window, the BMC will adjust the fan speed to accommodate the issue and a fault will
be reported. The following table lists the Thermal Algorithm Thresholds along with the related fault levels
and threshold values.
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User Guide
The following table lists the different severity of thermal algorithm critical faults that are reported to the
user.
Table 3: Thermal Algorithm Critical Faults
1. Overview
1.3 OpenFlex F3100 and E3000 Specification Summary
ComponentCritical Faults
DeviceAny sensor >= critical
BMC
The following table lists the device decision values that the system chooses from during operation. It
describes how the pulse width modulation (PWM) of the power that is being distributed to the cooling
fans reacts to different fault types.The fault will be reported based on the severity of the thermal issue.
Not installed FAN
Not installed PSU
Not installed Device or Blank
Not installed BMC
Any sensor >= criticalPSU
Any critical status on SMBus
Table 4: Thermal Algorithm Device Decision for Fan Control
FaultSensor ValueFan Response
CriticalSensor >= Critical100% PWM
IncreaseSensor >= MaxPWM + increase step
DecreaseSensor <= MinPWM - decrease step
No ChangeMin < Sensor < MaxHold PWM
1.3 OpenFlex F3100 and E3000 Specification Summary
Table 5: Environmental Specifications
SpecificationNon-OperationalOperational
Temperature-30°C to 60°C5°C to 35°C
Temperature Gradient30°C per hour max20°C per hour max
Temperature De-rating1°C per 300m above 3000m1°C per 175m above 950m
Relative Humidity Gradient 30% per hour maximum30% per hour maximum
Altitude-300m to 12,000m / -984 ft. to
39,370 ft
-300m to 3048m / -984 ft. to 10,000
ft.
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User Guide
CoolingN/A4 Fan Modules (N+1 Supported),
Table 6: Electrical Specifications
Max Power Consumption1600W
Typical Power Consumption~1400W
Input Voltage200V - 240V
PSU Connector TypeC16
Inrush Current Maximum (per PSU)AC line inrush current shall not exceed 40A peak,
PSU Efficiency80 PLUS Platinum
1. Overview
1.3 OpenFlex F3100 and E3000 Specification Summary
SpecificationNon-OperationalOperational
containing two fans per module
SpecificationValue
for up to one-quarter of the AC cycle after which,
the input current should be no more than the
specified maximum input current.
Table 7: Mechanical Specifications
SpecificationNon-OperationalOperational
Shock20G, 7ms half sine; 3 positive
and 3 negative pulses in each
axis Z and Y. X axis- 15G, 7ms half
sine, 3 positive and 3 negative
pulses
VibrationLinear Random: 0.50Grms;
5-500Hz; 10 minutes each axis in
X, Y, and Z
Linear Random: 0.54Grms;
1-200Hz; 60 minutes in Z axis.
Linear Random: 0.80Grms; 2 200Hz; 15 minutes in Z axis
Swept Sine: 0.50G, 0 - peak
swept sine; 5 - 500Hz; 1
complete sweep @ 1/2 octave
per minute
Weight68.5 kg / 151.1 lbs.
DimensionsW: 447.2 mm x L: 828.04 mm x H: 130.9 mm / W: 17.6 in. x L: 32.6 in.
x H: 5.2 in.
5G, 11ms half sine; 3 positive and
3 negative pulses in each axisminimum 6 seconds between
shocks
Linear Random: 0.15 Grms 5-500
Hz 10 minutes each axis in X, Y
and Z
Swept Sine:0.17 G, 0 - peak,
5-500 Hz 0.5 octaves/min,
approx. 13 minutes each axis
System Installation Length778 mm / 30.6 in. from the front rack chassis mounts to the rear of
the system
Required Rack Depth1000 mm (39.4 in.) of usable rack space, frame to frame
Vertical Rack Rail Spacing718 mm – 850 mm / 28.26 in. – 33.46 in.
Table 8: Performance Specifications
Number of Device Slots10 Dual-port Fabric Device Bays
Data Transfer Rates12GBps NVMe-oF
Max Raw Data Storage Capacity614TB
Ethernet Ports 20 x 50Gbps QSFP28 ( 2 per Fabric Device)
Table 9: Performance Specifications by CRU P/N
1. Overview
1.3 OpenFlex F3100 and E3000 Specification Summary
SpecificationNon-OperationalOperational
SpecificationValue
*
1 x 10/100/1G Ethernet
CRU P/N1EX24131EX24161EX24141EX24171EX24151EX2418
Capacity/
Endurance
Random Read
(4KB, QD=1024)
Random Write
(4KB, QD=1024)
Random Mixed
70R/30W
(4KB, QD=1024)
Sequential Read
(128KB, QD=320)
Sequential Write
(128KB, QD=320)
Random Write
Latency
(4KB, QD=1, 99.99%)
Notes on Testing:
• Latency measured through a single Mellanox SN2700 switch
• K IOPs = IOPs x 1000
• Devices pre-conditioned with 2 full sequential fills
12.8TB
1-2DWPD
2199K
IOPs
1493K
IOPs
2199K
IOPs
11.8 GB/s11.7 GB/s11.7 GB/s11.7 GB/s11.711.7 GB/s
9.9 GB/s9.9 GB/s9.9 GB/s9.4 GB/s9.4 GB/s9.9 GB/s
33.9 us33.7 us33.7 us33.9 us33.733.5 us
15.36TB
0.8DWPD
2111K
IOPs
1433K
IOPs
2137K
IOPs
25.6TB
2DWPD
2164K
IOPs
1431K
IOPs
2183K
IOPs
30.72TB
0.8DWPD
2160K
IOPs
1397K
IOPs
2188K
IOPs
51.2TB
0.8DWPD
2176K
IOPs
1464K
IOPs
2227K
IOPs
61.44TB
0.8DWPD
2191K
1
IOPs
1400K
1
IOPs
2251K
IOPs
* Max storage capacity depends on device version and device configuration.
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User Guide
Table 10: Acoustic Specifications
1. Overview
1.4 Physical Design
Quantities Declared
A-weighted sound power level1, L
WAd
{1 B = 10
Idle
Mode
8.58.59.69.6
Operating
Mode
Fan Fail
Mode
5
Max Fan
Mode
dB}
Average A-weighted emission sound pressure
level2, L
(dB) {bystander position3}
pAm
66.066.074.976.2
Statistical adder for verification4, K (dB)2.52.52.52.5
Notes on Acoustic Testing Methodology and Environment:
1
Declared A-weighted sound power level for a single machine, calculated per section 4.4.2 of ISO
9296-1988 and measured per ISO 3744
2
Declared A-weighted sound pressure level for a single machine, calculated per section 4.4.4 of
ISO-9296-1988 and measured per ISO 3744
3
The front and rear of the UUT were selected for the bystander location, due to access typically from the
cool or hot isle in a data center. This does not meet the four bystander positions as specified in ECMA-74
2012, but the microphones were adjusted to the preferred location.
4
The statistical adder, K, accounts for random measurement error, and is equal to 2.5 dB, which is
appropriate for a 5% risk of rejection for SR = 1.5 dB per section 4.4.2 of ISO 9296-1988.
5
At steady state condition, system/PSU fans reached 100% pwm speeds during fan fail mode testing.
• Background noise: <7dBA
• Environmental test conditions: ~23° C, 57% RH, 101.3 kPa
The OpenFlex F3100 and E3000 physical design emphasizes easy access to hot-swappable components,
maximization of data storage capacity in the rack, and bold aesthetic design.
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User Guide
Figure 4: OpenFlex F3100 and E3000 Layout
1. Overview
1.4 Physical Design
The enclosure measures 447.2 mm/17.6 in. wide by 828.04 mm/32.6 in. long. It's height is 130.9 mm/5.2 in.
or 3U. The chassis installation length is 778 mm / 30.6 in. from the front rack chassis mounts to the rear of
the system.
Figure 5: OpenFlex F3100 and E3000 Dimensions
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User Guide
1.4.1
LEDs
Chassis LEDs
Figure 6: Chassis Rear IO LEDs
1. Overview
1.4 Physical Design
Table 11: Chassis Rear IO LED Flash Patterns
LED NameColorBehavior
Ethernet Link/ActivityGreenOff: No Connection
Solid: Connected
Blink: Activity
Ethernet Speed
IdentificationBlue
QSFP28 LED
GreenOff: Operating at 10 Mbps
Solid: Operating at 100 Mbps
AmberOff: Operating at 10 Mbps
Solid: Operating at 1Gpbs
Blink @ 1 Hz: Blinks only when Identification has
been activated. Will blink when any component
is identified, e.g. Fans, PSUs, etc.
Off: Enclosure not being identified/located
Green
Amber
Solid: Link operating at maximum speed
Blink (3Hz): Link activity
Off: Default state
Solid: Link operating at a lower speed, 50G or
less
Blink (3Hz): Low speed link activity
Blink (1Hz): On/Off - Identify
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User Guide
PSU LED
1. Overview
1.4 Physical Design
LED NameColorBehavior
PowerGreenSolid:Enclosure is powered on
Off:Enclosure is powered off
FaultAmberBlink @ 2 Hz: Enclosure has a fault
Off: Enclosure has no fault
Figure 7: PSU LED
Fan Module LED
Table 12: PSU LED Flash Patterns
LED NameColorBehavior
Multi-
function LED
GreenSolid: PSU is on and
reporting no faults
Blinking @ 2Hz: PSU
in firmware update
mode
Off: PSU is
disconnected from
power
Amber Solid: PSU is
disconnected from
power or critical fault
causing a shutdown
failure
Blinking @ 0.5Hz: PSU
reporting warnings
Off: PSU is reporting
no faults
Figure 8: Fan Module LED
Table 13: Fan Module LED Flash Patterns
LED NameColorBehavior
LEDAmber Blinking @ 2 Hz: Fan is
reporting a fault
Blinking @ 1 Hz: Fan is
being identified
Off: Fan is on and
reporting no faults
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User Guide
BMC Module LEDs
1. Overview
1.4 Physical Design
Figure 9: BMC Module LEDs
Table 14: BMC Module LED Flash Patterns
LED NameColorBehavior
IdentificationBlueBlink @ 1 Hz:
Blinks only when
Identification has been
activated. Will blink
when any component
is identified.
FaultAmber Blink @ 2 Hz:
Enclosure has a fault
Off: Default State
PowerGreenSolid: Powered On
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User Guide
OpenFlex F3100 LEDs
1. Overview
1.4 Physical Design
Figure 10: OpenFlex F3100 LEDs
Table 15: OpenFlex F3100 LED Flash
Patterns
LED NameColorBehavior
Device Status
PowerGreenOn: Device is
FaultAmberBlink @ 1 Hz:
WhiteSolid: On and
Connected
Off: Not Ready
or Powered
down
BlueBlink @ 1 Hz:
OpenFlexF3100
is flushing the
cache
Off: Default
State
Powered On
Off: Device
is Powered
Down
Device has a
fault
Solid: Device
is Powered
Down
Off: Device has
no fault
IdentificationBlueBlink @ 1
Hz: Blinks
only when
Identification
has been
activated.
Off: Device
is not being
identified.
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User Guide
1.4.2
Cables
The following table displays the power cable supported by Western Digital:
Table 16: Approved Power Cables
1. Overview
1.5 Restrictions and Limitations
TypePart NumberLength
IEC C14 to IEC C15 Heavy
Duty 15A Power Cable
The following table displays the Ethernet cables approved by Western Digital:
Note: These cables are approved, but not provided by Western Digital.
(Provided in Accessory Kit)6 ft.
Table 17: Approved Ethernet Cables
VendorActive/PassiveVendor Model Number
Mellanox
Amphenol
PassiveMCP1600-C001
PassiveMCP1600-C002
PassiveMCP1600-C003
ActiveMFA1A00-C005
PassiveNDARHG-0001
PassiveNDARHG-0004
PassiveNDARHF0002
PassiveNDARHJ0003
Western Digital
Part Number
1.5 Restrictions and Limitations
The OpenFlex F3100 and E3000 have the following restrictions and limitations on functionality:
• All E3000 chassis must be full for proper airflow. This means that if there is only one device installed, the
rest of the device slots must be filled with device blanks.
• If the BMC Module is not installed in the E3000 chassis, F3100 devices cannot be added or slot
swapped.
• Only hot-swap a single component at a time. Never remove more than one at a time.
• VLAN tagging is not supported.
• RoCE v1 is not supported. F3100 will support RoCE v2 only.
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User Guide
• To power off an F3100, browse directly to the F3100. Power off cannot be done from the E3000. To
power back on the F3100, browse to the E3000.
• IPv4 networking only.
• Only one browser session allowed to an individual F3100 device.
• Enforced maximum limits on configuration
◦ 256 Volumes
◦ 256 Hosts
◦ 2048 Queue Pairs
◦ 128 Queue Pairs (1 Admin, 127 IO) per connection
◦ 64 max queue depth per IO Queue Pair
1.6 Site Requirements
1.6.1
Power Requirements
The E3000 is equipped with redundant PSU units. The PSUs are hot-swappable and are located at the rear
of the chassis. The following is a specification summary. Note that the system does not support lowline
voltage.
1. Overview
1.6 Site Requirements
1.6.2
Table 18: Power Specification
SpecificationValue
Power Output1600W
Input Voltage200V - 240V
80 PLUS StandardPlatinum
Connector TypeC16
Rack Requirements
The E3000 is designed to be installed into a rack that meets the EIA-310 standard with a minimum of 1000
mm (39.4 in.) of usable rack space, frame to frame. The vertical rack rails must be set between 718 mm
– 850 mm / 28.26 in. – 33.46 in. to support the enclosure. It requires 3U of rack space, and it should be
installed into the rack at the lowest possible U height to keep the load on the rack balanced.
Table 19: Required Rack Specifications
ParameterRequirement
Rack Depth1000 mm (39.4 in.) of usable rack space, frame to
frame
Rack Width450mm (17.72in.) with 465mm (18.31in.) ± 1.5mm
nominal hole spacing. See EIA-310 Rack Standard
Rack Units (U)3U
Vertical Rack Rail Spacing718 mm – 850 mm / 28.26 in. – 33.46 in.
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User Guide
Static Load RatingRack meets ISTA 3E or 3B test requirements and
Dynamic Load RatingRack meets ISTA 3E or 3B test requirements and
1.6.3
Thermal and Cooling Requirements
The thermal output of the OpenFlex F3100 and E3000 depends on the number of F3100s that are
populated in the E3000. Use the following table to determine how many BTUs of heat will exhaust from the
rear of the unit.
Table 20: BTU Exhaust per Component
1. Overview
1.6 Site Requirements
ParameterRequirement
regulations when mounted to the shipping pallet
regulations when mounted to the shipping pallet
ConditionTypical BTU OutputMax BTU Output
1.6.4
Single E3000 w/ BMC Module768 BTU/hr = 225 W
(25C/77F, fans at 50%)
Single F3100409 BTU/hr = 120 W
(25C/77F, Workload: Random
Read/Write, queue depth
32, 80% internal processors
dedicated to workload)
E3000 Fully Populated with
F3100s
Servicing Requirements
Space Requirements
The installation of the OpenFlex F3100 and E3000 will require enough space in front of the rack for two
people to perform a safe installation. The recommended forward clearance is 889 mm / 35 in. from the
front of the rack and 609.6 mm / 24 in. on both sides of the enclosure. It is also recommended to make
considerations for any carts or lift equipment that might be used to perform the installation. * The servicing
of the enclosure requires one person and a minimum of 508 mm / 20 in. of space in front of the rack to
allow enough clearance to remove an F3100 from the enclosure. See the following diagram for details.
5244 BTU/hr = 1537 W
(25C/77F, fans at 50%)
1177 BTU/hr = 345 W
(35C/95F, fans at 100%)
546 BTU/hr = 160 W
(35C/95F, workload: Highest
throughput to drives – Seq
Write, queue depth 32, all
internal processors at 100%)
5884 BTU/hr = 1725 W
(35C/95F, fans at 100%)
* The weight of the enclosure during installation will vary, depending on the number of F3100 devices and blanks
contained in the E3000. In some situations, carts or lift equipment may be required.
The OpenFlex E3000 chassis is the primary housing that contains and connects all of the system
components that comprise the OpenFlex F3100 and E3000 . The chassis contains one BMC Module in the
front, and the rear contains two redundant PSUs and four Fan Modules that come preinstalled in the chassis.
The chassis also contains ten device slots that can be populated with approved OpenFlex™ components.
The E3000 is installed and secured onto shelf style rail mounts. The rear IO houses the primary connections
such as power and QSFP28 ports and the status LEDs for all of the components.
2.1.1
Chassis Specifications
2. Components
2.1 Chassis
Table 21: Chassis Specification Summary
SpecificationValue
Rack Units3U
Number of Device
Slots
Number of BMC Slots1
Part Number1EX1919
Hot Swappable?No
DimensionsW: 447.2 mm x L:
Weight38.2 lbs / 17.32 kg
10
828.04 mm x H: 130.9
mm / W: 17.6 in. x L:
32.6 in. x H: 5.2 in.
21
User Guide
2.2 PSU
The OpenFlex E3000 chassis contains toolless redundant 1600W Power Supply Units (PSU). Each PSU
requires an input voltage of between 200V - 240V. The PSUs are certified 80 PLUS Platinum and use the C16
connector type. Due to the redundant nature of the PSUs, they may be serviced or replaced, one at a time,
while the enclosure is powered on.
2.2.1
PSU Specifications
2. Components
Table 22: PSU Specification Summary
SpecificationValue
Power Output1600W
Input Voltage200V - 240V
80 PLUS StandardPlatinum
Connector TypeC16
2.2 PSU
Internal Fan SpeedUp to 25,000 RPM
Number per Enclosure 2
Part Number1EX1916
Hot Swappable?Yes
Service Window5 minutes
Dimensions
Weight2.31 lbs. / 1.05 kg
W: 54.5 mm x L: 321.5
mm x H: 40.1 mm
W: 2.15 in. x L: 12.66 in.
x H: 1.58 in.
22
User Guide
2.3 Fan Module
The OpenFlex E3000 contains four toolless Fan Modules to maintain the cooling across the entire system.
The Fan Modules are connected to the rear of the Chassis using a handle to seat the module in place
and captive screw to secure the Fan Module into the fan bay. Due to the redundant nature of the Fan
Modules, they may be serviced or replaced, one at a time, while the enclosure is powered on. The Fan
Modules will accelerate to maximum RPM while the BMC Module or devices are removed during servicing or
replacement.
2.3.1
Fan Module Specifications
2. Components
2.3 Fan Module
Table 23: Fan Module Specification
Summary
SpecificationValue
Rated Voltage12V
Fan Speed12000 RPM
Acoustics76 dB measured at 1
meter from the fan inlet
Number per Enclosure 4 Fan Modules
containing two rotors
per module
Part Number1EX1915
Hot Swappable?Yes
Service Window5 minutes
Dimensions
Weight1.76 lbs. / 0.8 kg
W: 92.74 mm x L: 127.2
mm x H: 85.2 mm
W: 3.65 in x L: 5.01 in x
H: 3.35 in
23
User Guide
2.4 BMC Module
The OpenFlex E3000 contains a toolless BMC Module that is installed into the center slot at the front of the
Chassis. The BMC Module is accessed using a 1GBe Ethernet management RJ45 port on the rear IO of the
Chassis. The BMC Module enables out of band management (OOBM) using a RESTful interface (via HTTP
or HTTPS). OOBM controls the actions between devices and the BMC Module for powering down, setting
system configurations, and the cooling algorithm for the Fan Modules. The BMC Module may be serviced or
replaced while the enclosure is powered on as long as it is replaced within five minutes of removing it from
the slot. Replacing a BMC module will not effect data flow to devices.
2.4.1
BMC Module Specifications
2. Components
2.4 BMC Module
Table 24: BMC Module Specification
Summary
SpecificationValue
Input Current2A Maximum
Input Power25W
Rated Voltage12V +/- 10%
Number per Enclosure 1 installed in the center
device slot
Part Number1EX1917
Hot Swappable?Yes
Service window5 minutes
Dimensions
Weight3.26 lbs. / 1.48 kg
W: 55.6 mm x L: 459.12
mm x H: 126.94 mm
W: 2.19 in x L: 18.08 in x
H: 5 in
24
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