QuickSpecs
HPE Storage Switch M-series SN4700M with NVIDIA Cumulus® Linux QuickSpecs
HPE Storage Switch M-series SN4700M with NVIDIA Cumulus® Linux is based on the 3rd generation of NVIDIA Spectrum switches, purpose-built for leaf/spine/super-spine data center applications.
Allowing maximum flexibility, the 1U SN4700M provides port speeds spanning from 1 GbE to 400 GbE based on QSFP-DD ports, and a port density that enables full rack connectivity to any server. HPE Storage Switch M-series SN4700M provides an on-chip fully shared 64 MB packet buffer, and flexible per port PAM-4 and NRZ signaling in addition to advanced hardware capabilities.
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HPE M-Series with NVIDIA Cumulus® Linux family of Ethernet switches are capable of addressing today’s data center’s complex networking requirements, growth, and expansion and are perfect for Top-Of-Rack (TOR) deployments and optimized for virtualized environments, hyperconverged infrastructure, and storage deployments. HPE M-Series Ethernet switches give you the right network bandwidth with consistent zero packet loss performance for high-performance and storage workloads.
HPE Storage Switch M-series SN4700M with NVIDIA Cumulus® Linux is based on the 3rd generation of NVIDIA SpectrumTMswitches, purpose-built for leaf/spine/super-spine data center applications. The uplink ports allow a variety of blocking ratios to suit any application requirement. The SN4700M is ideal for building cloud-scale layer-2 and layer-3 networks. The HPE Storage Switch M-series SN4700M platform delivers high performance, consistent low latency along with support for advanced software defined networking features, making it the ideal choice for web scale IT, cloud, hyperconverged storage and data analytics applications.
With an increasing need to access data faster and accommodate growing workloads, rising levels of east-west traffic, and new storage arrays based on flash storage technologies, a high bandwidth, low-latency, zero packet loss network becomes paramount. The HPE Storage Switch M-series SN4700M with NVIDIA Cumulus® Linux offers QSFP-DD, which is compatible with QSFP56 and QSFP28, connectivity for leaf-spine applications requiring matched downlink to uplink bandwidth. NVIDIA Cumulus® network platforms are capable of delivering unbelievable networking speed and agility to keep pace with the most intense workloads small to large scale enterprises can produce. With port speeds spanning 1 Gb/s to 400 Gb/s and a switching capacity of 25.6 Tb/s from 32 ports at 400 GbE. This switch provides non-blocking throughput at wire-speed transfers-across all packet sizes. The SN4700M delivers a landmark 8.4 Bpps processing capacity and an uncompromising ultra-low true cut-through latency.
Delivering the highest feature set at the right price allows you to get the most out of your Ethernet infrastructure to best support a variety of use cases, including media and entertainment; streaming video, financial services industry, virtualized data centers, and next generation storage, including software-defined storage and NVMe® flash. HPE SN4700M switches are available with factory integrated NVIDIA Cumulus® Linux for immediate deployment. With HPE M-Series switches, you can:
- – Optimize Storage— modernize your network to eliminate limitations and bottlenecks that can be caused by the addition of flash storage
- – Enjoy efficient network performance— avoid packet loss, provide predictable performance with line-rate packet delivery across all ports and all packet sizes
- – Realize breakthrough economics— make better use of your data center resources with the highest port density per rack unit and the industry’s lowest power consumption
- – Accelerate business innovation— utilize 100/200 Gbps Ethernet connectivity for existing workloads and enhance connectivity utilizing built-in 400 Gbps Ethernet capabilities to respond quickly to business needs and to stay on the leading edge of Ethernet switching technology
HPE Storage Switch M-series SN4700M Ethernet switches are built on Spectrum-3 technology with capabilities:
- – Flexible Ethernet port speeds from 1 Gbps to 400 Gbps
- – Wire-speed consistent True cut-through latency
- – 64 MB on-chip fully-shared packet buffering
- – Feature-rich layer 2 and layer 3 forwarding
- – 512K forwarding entries flexibly shared across ACL, LPM routes, Host routes, MAC, ECMP, and Tunnel applications.
- – Refer to the NVIDIA Cumulus® Linux Forwarding Table Size and Profiles Longest Prefix Match (LPM) for routing scalability specifications
- – Deep packet inspection – 512 billion deep
- – Advanced granular telemetry with – What-Just-Happened ® (WJH) and 512K on-chip flow counters
- – Ultra-low latency with true cut through performance, Zero packet loss performance with NVMe TCP and RoCEV2 RDMA, DCBX, PFC, ECN support
Models | |
| HPE Storage Switch M-series SN4700M Ethernet Switch | |
| Description | SKU |
| HPE 400 GbE 32QSFPDD Power to Connector Airflow Switch SN4700M with NVIDIA Cumulus | S2T81A |
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| Notes: HPE switch SKUs with factory installed NVIDIA Cumulus® Linux cannot be converted to HPE ONYX or ONIE switch SKUS. | |
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Key Features and Benefits
- – SN4700M switches are ideal for modern server and storage networks, supporting up to 128 1/10/25 GbE ports with DAC, AOC, and optical breakout cables. The 32 ports of 400 GbE deliver predictable performance and zero packet loss at line-rate across each port and packet size
- – SN4700M can be deployed to support 1/10/25/100 GbE ports, including 10 Gbase-T RJ45 transceivers, and is designed to be able to evolve over time to support 200/400 GbE speeds. This helps future-proof your network architecture and allows for implementing significant speed upgrades to the architecture over time
Notes: Only ODD ports support x8 breakout. For example, port 3 configured for x8 breakout results in port 4 being blocked and not usable.
- – SN4700M provides ultra-low cut-through latency port-to-port. This is advantageous for flash storage which moved the latency bottleneck from storage media to the network, as well as for the bursty nature of today’s software-defined and cloud-driven data center traffic flows
- – It provides high port density in a single rack unit, allowing for higher capacity and efficiency, simplifying scale- out environments and saving on total cost of ownership. Unique breakout cables fan out individual switch ports to multiple device ports
- – Provides wire-rate performance with zero packet loss across all frame sizes, avoiding any negative impact on applications that could occur with frame loss as unexpected packet loss is unacceptable in modern data centers, especially within a storage network
- – Capable of forwarding 100% capacity wire rate performance with zero packet loss across all ports concurrently at 400 GbE speeds while transferring data across both Layer 2 and Layer 3 networks
- – Designed to use less electric power than competing switches, providing one of the industry’s lowest power draws, producing less heat than competing products, providing reduced OPEX cost
- – Provides enough switching bandwidth to transport all ports at 400 GB/s bandwidth concurrently. This allows the switches to avoid head-of-line blocking which can reduce a switches overall performance and throughput
NVIDIA Cumulus® Linux
Cumulus Linux is a powerful open network operating system enabling advanced automation, customization and scalability using web-scale principles like the world’s largest data centers. It accelerates networking functions and provides choice from an extensive list of supported switch models including NVIDIA SpectrumTMbased switches. Cumulus Linux was built for automation, scalability and flexibility, allowing you to build data center and campus networks that ideally suits your business needs. Cumulus Linux is the only open network OS that allows you to build affordable and efficient network operations like the world’s largest data center operators, unlocking webscale networking for businesses of all sizes.
The Ideal Solution for Your Network Challenges, Cumulus Linux enables modern data center architectures, while providing a transition path for traditional data center architectures, with support for layer 2, layer 3, and overlay networks. This open approach enables a wide range of solutions. Centralized, remote management of AI deployments enables over-the-air software updates, remote debugging, and system monitoring, as well as other features like self-healing systems. These remote management features make maintenance and upkeep easier, and AI more accessible and practical for locations that are difficult to access or far from headquarters. This results in faster, more comprehensive insights that can drive real-time decisions.
Deployment Models:
L3 network, L2 network, Clos, Out-of-band management, Overlay network,
Use cases:
Containers, Big data, Private cloud, Network virtualization, DevOps / automation, Monitoring and analytics, Hyperconverged infrastructure.
Key Features
Unnumbered Interfaces: Automation gets even easier with this simplified Internet Protocol (IP) approach for Border Gateway Protocol (BGP) and Open Shortest Path First (OSPF). All you need is one IP template for leaf nodes, and one for spine nodes. BGP Unnumbered, the only difference between a BGP unnumbered configuration and the BGP numbered configuration is that the BGP neighbor is as an interface (instead of an IP address). There is no need to configure an IP address on the interface between the two peers on each side.
Redistribute Neighbor (RDNBR): Get virtual machine (VM) and host mobility by plugging your server into any RDNBR switch and making it layer-3 discoverable on the fabric. If you need to move the server, there’s no need to reconfigure.
Prescriptive Topology Manager (PTM): Efficiently go from whiteboard to physical cable. With PTM, you can program your data center to verify connections and resolve issues faster.
Virtual Routing and Forwarding: Run multiple network paths without the need for multiple switches, giving you traffic isolation and network segmentation for multiple devices.
Ethernet Virtual Private Networks (EVPN): The most advanced capabilities available for EVPN allow legacy layer-2 applications to operate over next-generation layer-3 networks.
NVIDIA User Experience (NVUE): A full command-line interface (CLI) object model of Cumulus Linux enables advanced programmability, extensibility, and usability.
Digital twins: NVIDIA Air makes physical deployments seamless by validating and simplifying deployments and upgrades in a virtual network.
User Interface: Command Line
With the NVIDIA User Experience (NVUE) object-oriented management tool, Cumulus Linux customers can go beyond the CLI and unify their network management with the rest of the data center management. NVUE enables any APIs to tie into NOS management, including REST, gRPC, RestConf, NetConf, and OpenConfig. Additionally, NVUE is Git-based, enabling Diff, revert, apply, branch, and stash behaviors. NVUE’s configuration is simple: one YAML file ties all Linux configurations together, making it easy to copy configurations from switch to switch.
Operating System Install and Upgrade
- – Server-style upgrade/patching across minor releases, server-style process restart/termination
- – Support for zero touch OS installation using ONIE loaded on industry-standard switches
- – Standard mechanism for authentication, authorization, and accounting with TACACS+
Extensibility
- – Cumulus Linux works with any language supported in Linux today, including scripting with Bash. Perl. Python, and Ruby
Hardware Management
- – The switch hardware abstraction layer accelerates Linux kernel networking constructs in hardware, including the routing table, ARP table, bridge FOB, IP/EB tables, bonds, VLANs, and VXLAN bridges
- – Hardware management also includes jumbo frames support and environmental management
- – Forwarding table profiles on the ASIC provide flexible partitioning of resources
Layer 3 Features
- – IPv4/v6 routing suite including OSPFv2, OSPFv3, and BGPv4/v6
- – RDMA over Converged Ethernet (RoCEv2) support for Layer 2 and Layer 3
- – Virtual routing and forwarding (VRF) and VRF route leaking
- – Equal-cost multi-path (ECMP) and ECMP resilient hashing for IPv4 and IPv6 traffic
- – Bidirectional forwarding detection (BFD) across all platform and interface types, IPv4 and IPv6, BGP and OSPF, VXLAN, BGP conditional route advertisement
- – Protocol-independent multicast (PIM, PIM-SM, PIM-SSM)
- – Policy-based routing
- – Generic routing encapsulation (GRE) tunneling
- – Precision time protocol (PTP) Boundary Clock
- – VNI scaling supports 6 bridges with up to 1,000 VNls
- – GTP Hashing
- – Adaptive Routing with RoCEv2
Layer 2 features
- – Bridge management with STP (IEEE 802.1d). RSTP (IEEE 802.1w), PVRST, PVST, bridge assurance, BPDU guard, and BPDU filter
- – VLANs. VLAN trunks (IEEE 802.1q). LACP (IEEE 802.3adl. LACP bypass, unicast/broadcast storm control, LLDP, CDP, IPv6 neighbor discovery, and IPv6 route advertisement
- – MLAG (cladg daemon)
- – IGMPv2/v3 snooping, MLDv1/v2 snooping, Optimized Multicast Flooding (OMF)
- – Virtual router redundancy (VRR - active-active first hop redundancy protocol)
- – LLDP DCB IEEE TLVs
Network Virtualization
- – VXLAN support
- – VXLAN Routing - symmetric and asymmetric
- – L2 gateway services integration with VMware NSX
- – VXLAN head end replication
- – VXLAN active-active bridging with MLAG
- – Controller-less network virtualization with EVPN
Management
- – Object-oriented APl-compatible switch management with NVIDIA User Experience (NVUE)
- – ISSU: in-service software upgrades
- – Warm boot on bonds
- – Native Linux management tools, such as OpenSSH, SCP, and FTPS
- – Automated installation and provisioning: zero touch install and zero touch provisioning
- – Management VRF
- – DHCP and v4/v6 DHCP relays.
- – Authentication with LDAP and authorization with sudo NTP.
- – Interface configuration management (ifupdown2).
- – Advanced management/orchestration through third-party add-on packages.
- – Snapshot and rollback of the entire system to eliminate risk from system updates.
Monitoring and Troubleshooting
- – Monitor traffic patterns and preemptive capacity planning with buffer monitoring
- – Traditional monitoring with SNMPv2 and SNMPv3 and network-specific MIBs, hardware monitoring via watchdog, analytics with SPAN, ERSPAN, ACL-based counters, DOM optics data, thermal sensors, real time queue depth, and buffer utilization reporting
- HPE recommends use of SNMPv3 username and password instead of the read-only community; SNMPv3 does not expose the password in the GetRequest and GetResponse packets and can also encrypt packet contents. You can configure multiple usernames for different user roles with different levels of access to various MIBs
- The /usr/share/snmp/mibs/Cumulus-Snmp-MIB.txt file defines the overall Cumulus Linux MIB
- – Troubleshooting with dnsutils, syslog, reachability tools, hardware inventory, log files, server-style filesystem, and Spectrum ASIC commands
- – The cl-support script generates a compressed archive file (.txz) of useful information for troubleshooting. The system either creates the archive file automatically or you can create the archive file manually. The system creates the cl-support archive file automatically for the following reasons:
- When there is a core dump file for any application (not specific to Cumulus Linux, but something all Linux distributions support), located in /var/support/core
- When one of the monitored services fails for the first time after you reboot or power cycle the switch
- – sFlow monitoring for system statistics and network traffic
- – The NVIDIA Firmware Tool (MFT) mlxlink tool is integrated into Cumulus and is used to check and debug link status and related issues. The tool can be used on different links and cables (passive, active, transceiver and backplane)
- – What Just Happened (WJH) provides real time visibility into network problems and has two components:
- The WJH agent enables you to stream detailed and contextual telemetry for off-switch analysis with tools such as NVIDIA NetQ
- The WJH service (what-just-happened) enables you to diagnose network problems by looking at dropped packets. WJH can monitor layer 1, layer 2, layer 3, tunnel, buffer and ACL related issues. Cumulus Linux enables and runs the WJH service by default
- You can choose which packet drops you want to monitor and show by creating channels and setting the packet drop categories (layer 1, layer 2, layer 3, tunnel, buffer and ACL) you want to monitor
- NVUE does not provide commands to set the buffer and ACL packet drop categories. You must edit the /etc/what-just-happened/what-just-happened.json file. NVUE supports WJH show commands
Security
- – Access control lists (ACLs) L2-L4 classification through IP/EP tables and CPU protection through hardware enforced ACL-based rate limiting DoS control
- – Authenticate and authorize attached devices with 802.1x
- – Kernel Address Space Randomization
QoS
- – Link PAUSE
- – Classification based on Class of Service (CoS) (IEEE 802.1p) or DSCP (queuing, scheduling-DWRR and Strict Priority - and buffer allocation)
- – Ingress ACL-based classification/policing
- – Priority flow control and explicit congestion notification (ECN)
- – Dynamic buffer configuration as default
Cumulus VX and NVIDIA AIR
- – Getting started with Cumulus Linux is easy. Customers can explore, test, and prototype the technology
- To build a data center digital twin or mock-up a deployment with Cumulus, visit NVIDIA Air
- – Download the free NVIDIA Cumulus VX appliance, supported virtual appliance to test and stage production rollouts
Third-party Packages
- – Orchestration: Ansible, CFEngine, Chef, and Puppet
- – Monitoring: Collectd, Ganglia, Graphite, Nagios/lcinga, and NetSNMP
- – You can use Cumulus Linux to run the Docker container platform. You can install Docker Engine directly on a Cumulus Linux switch and run Docker containers natively on the switch
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Warranty
(3-3-3) Hardware Warranty: 3-year parts, 3-year on-site (standard business hours, next business day response), and 3-year labor.
Notes: The hardware warranty covers firmware. For extended hardware support and installation information, please see the “Services and Support” Section.
The HPE SN4700M switch is the replaceable service unit. HPE does not spare the SN4700M power supply and fan. The SN4700M switch supports power supply and fan hot swap as documented in
A self-sparing customer would utilize power supply and fan part numbers:
- – 930-9BFAN-00IX-000 MTEF-FANF-M NVIDIA fan module, 40 x 40 [mm], P2C airflow
- – 930-9NPSU-00J2-000 MTEF-PSF-AC-F Power-Supply Unit, 1500 W AC, P2C Airflow
- – ACC001449 N/A Power cord gray 250 V 10A 1830MM C14 to C15 EUR + CCC
- – ACC001550 N/A Power cord black 110 V 15A 1830MM C14 to C15 UL
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| HPE Storage Switch M-series SN4700M (P2C) 32QSFP-DD Switch | ||
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| Notes: SN4700M with NVIDIA Cumulus® Linux requires transceivers listed below. | ||
Step 1: Base Configuration.(Select one Model) | ||
| Note # | Description | SKU |
| | HPE 400GbE 32QSFPDD Power to Connector Airflow Switch SN4700M with NVIDIA Cumulus | S2T81A |
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Step 2: Options | ||
| Refer to HPE M-Series Switches SPOCK Connectivity Stream for latest SN4700M with NVIDIA Cumulus® Linux interconnect support matrix. | ||
| Transceivers – for M-series SN4700M NVIDIA Cumulus® Linux switches | ||
| Notes: All 32 SN4700M QSFP-DD ports support 12 W maximum power per transceiver. | ||
| Note # | Descriptions | SKU |
| | HPE 100GbE QSFP28 SR4 100m Transceiver | Q2F19A |
| | HPE Storage 100GbE QSFP28 SR4 Extended Temperature Pull Tab Transceiver | S2T35A |
| | HPE Aruba Networking 100G SR1.2 QSFP28 LC 100m MMF Transceiver | S4B44A |
| | HPE 100GbE QSFP28 500m 1310mm PSM4 Transceiver | Q8J73A |
| 5, 6 | HPE 100Gb QSFP28 LC SWDM4 Multi-mode 100m Transceiver | R0R40A |
| 2 | HPE 10GbE SFP+ SR Multi-mode 300m Transceiver | Q6M30A |
| 2 | HPE 10Gb SFP+ Short Wave 1-pack Pull Tab Optical Transceiver | Q2P65A |
| 2, 7, 8 | HPE 10GBASE-T SFP+ RJ45 30m 1-pack Transceiver | R0R41B |
| 2 | HPE 25Gb SFP28 SR 30m Transceiver | R0R42A |
| 2 | HPE BladeSystem c-Class 10Gb SFP+ SR Transceiver | 455883-B21 |
| 2 | HPE Aruba Networking 1G SFP RJ45 T 100m Cat5e TAA Transceiver | R9Q45A |
| 2 | HPE Aruba Networking 25G SFP28 LC LR 10km SMF Transceiver | JL486A |
| 2 | HPE 25GbE SFP28 LR 10km 1-pack Extended Temperature Pull Tab Transceiver | S6B58A |
| 2 | HPE Aruba Networking 10G SFP+ LC LR 10km SMF Transceiver | J9151E |
| 2 | HPE Aruba Networking 10G SFP+ LC ER 40km SMF Transceiver | J9153D |
| 2 | HPE 10GbE SFP+ LR 10km 1-pack Extended Temperature Pull Tab Transceiver | S6B57A |
| 2 | HPE Networking X130 10G SFP+ LC SR Transceiver | JD092B |
| 2 | HPE Networking X130 10G SFP+ LC LR Transceiver | JD094B |
| 2 | HPE Networking X130 10G SFP+ LC ER 40km Transceiver | JG234A |
| 1, 2 | HPE Networking X130 10G SFP+ LC LH 80km Transceiver | JG915A |
| | HPE Networking X140 40G QSFP+ CSR4 300m Transceiver | JG709A |
| | HPE Networking X140 40G QSFP+ LC LR4L 2km SM Transceiver | JL286A |
| | HPE Networking X140 40G QSFP+ LC LR4 SM 10km 1310nm Transceiver | JG661A |
| | HPE Aruba Networking 40G QSFP+ LC ER4 40km SMF Transceiver | Q9G82A |
| | HPE BladeSystem c-Class 40Gb QSFP+ MPO SR4 100m Transceiver | 720187-B21 |
| | HPE Networking X140 40G QSFP+ LC BiDi 100m MM Transceiver | JL251A |
| | HPE 40Gb QSFP+ Bidirectional Transceiver | 841716-B21 |
| 2 | HPE Networking X190 25G SFP28 LC SR 100m MM Transceiver | JL293A |
| 2 | HPE 25Gb SFP28 Short Wave Extended Temperature 1-pack Pull Tab Optical Transceiver | Q2P64B |
| 2 | HPE Aruba Networking 25G SFP28 LC eSR 400m MMF Transceiver | JL485A |
| | HPE Networking X140 40G QSFP+ MPO SR4 Transceiver | JG325B |
| 2 | HPE 25Gb SFP28 SR 100m Transceiver | 845398-B21 |
| 2 | HPE QSFP28 to SFP28 Adapter | 845970-B21 |
| | HPE Networking X150 100G QSFP28 LC LR4 10km SM Transceiver | JL275A |
| | HPE Networking X150 100G QSFP28 CWDM4 2km SM Transceiver | JH673A |
| 5, 6 | HPE Networking X150 100G QSFP28 LC SWDM4 100m MM Transceiver | JH419A |
| 5 | HPE 100Gb QSFP28 Bidirectional Transceiver | 845972-B21 |
| 10 | HPE 100GbE QSFP28 LC DR1 500m 1-pack Transceiver | R8M61A |
| | HPE Alletra 6000 2x100Gb QSFP28 MPO SR4 100m FIO Transceiver | R7D08A |
| | HPE Alletra 6000 2x100Gb QSFP28 MPO SR4 100m Transceiver | R7D12A |
| 2 | HPE Alletra 6000 2x10Gb SFP+ SR FIO Transceiver | R7D05A |
| 2 | HPE Alletra 6000 2x10Gb SFP+ SR Transceiver | R7D09A |
| 2 | HPE Alletra 6000 2x25Gb SFP28 SR 100m FIO Transceiver | R7D07A |
| 2 | HPE Alletra 6000 2x25Gb SFP28 SR 100m Transceiver | R7D11A |
| | HPE Aruba Networking 40G QSFP+ MPO SR4 Transceiver | R9F97A |
| Direct Attach Copper Cables (DAC) | ||
| Note # | Descriptions | SKU |
| 4 | HPE 7.6m/25ft CAT5 RJ45 M/M Ethernet C/O Cable | C7539A |
| 2 | HPE BladeSystem c-Class 10GbE SFP+ to SFP+ 3m Direct Attach Copper Cable | 487655-B21 |
| | HPE Networking Comware X240 40G QSFP+ QSFP+ 1m Direct Attach Copper Cable | JG326A |
| | HPE Networking Comware X240 40G QSFP+ QSFP+ 3m Direct Attach Copper Cable | JG327A |
| | HPE Networking Comware X240 40G QSFP+ QSFP+ 5m Direct Attach Copper Cable | JG328A |
| 3 | HPE 100GbE QSFP28 to 4x25GbE SFP28 1m Direct Attach Copper Cable | Q9S72A |
| | HPE Networking Comware X240 40G QSFP+ to 4x10G SFP+ 1m Direct Attach Copper Splitter Cable | JG329A |
| | HPE Networking Comware X240 40G QSFP+ to 4x10G SFP+ 3m Direct Attach Copper Splitter Cable | JG330A |
| | HPE Networking Comware X240 40G QSFP+ to 4x10G SFP+ 5m Direct Attach Copper Splitter Cable | JG331A |
| | HPE Networking X242 40G QSFP+ to QSFP+ 1m Direct Attach Copper Cable | JH234A |
| | HPE Networking X242 40G QSFP+ to QSFP+ 3m Direct Attach Copper Cable | JH235A |
| | HPE Networking X242 40G QSFP+ to QSFP+ 5m Direct Attach Copper Cable | JH236A |
| 3 | HPE Networking X240 QSFP28 4xSFP28 1m Direct Attach Copper Cable | JL282A |
| 3 | HPE Networking X240 QSFP28 4xSFP28 3m Direct Attach Copper Cable | JL283A |
| 3 | HPE Networking X240 QSFP28 4xSFP28 5m Direct Attach Copper Cable | JL284A |
| | HPE 100Gb QSFP28 to 4x25Gb SFP28 3m Direct Attach Copper Cable | 845416-B21 |
| | HPE 100Gb QSFP28 to QSFP28 5m Direct Attach Copper Cable | 845408-B21 |
| 2 | HPE 25Gb SFP28 to SFP28 5m Direct Attach Copper Cable | 844480-B21 |
| 2 | HPE Aruba Networking 25G SFP28 to SFP28 3m Direct Attach Copper Cable | R9F92A |
| 2 | HPE Aruba Networking 25G SFP28 to SFP28 5m Direct Attach Copper Cable | R9F93A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 1m Direct Attach Copper Cable | R0Z25A |
| 2,3 | HPE 25Gb SFP28 to SFP28 0.5m Direct Attach Copper Cable | R4G18A |
| 2,3 | HPE 25Gb SFP28 to SFP28 1m Direct Attach Copper Cable | R4G19A |
| 2,3 | HPE Aruba Networking 25G SFP28 to SFP28 0.65m Direct Attach Cable | JL487A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 5m Direct Attach Copper Cable | R0Z26A |
| | HPE Networking X240 100G QSFP28 1m DAC Cable | JL271A |
| | HPE Networking X240 100G QSFP28 3m DAC Cable | JL272A |
| | HPE Networking X240 100G QSFP28 5m DAC Cable | JL273A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 3m Direct Attach Copper Cable | JL307A |
| | HPE 100Gb QSFP28 to QSFP28 3m Direct Attach Copper Cable | 845406-B21 |
| | HPE 200Gb QSFP56 to QSFP56 0.5m Direct Attach Copper Cable | R5Z76A |
| | HPE 200Gb QSFP56 to QSFP56 1m Direct Attach Copper Cable | R5Z77A |
| | HPE 200Gb QSFP56 to QSFP56 2m Direct Attach Copper Cable | R5Z78A |
| | HPE 200Gb QSFP56 to QSFP56 2.5m Direct Attach Copper Cable | R5Z79A |
| | HPE Aruba Networking 10G SFP+ to SFP+ 7m Direct Attach Copper Cable | J9285D |
| 2 | HPE Alletra 6000 2x10Gb SFP+ to SFP+ 3m Direct Attach Copper Cable | R7D16A |
| 2 | HPE Alletra 6000 2x25Gb SFP28 to SFP28 3m Direct Attach Copper Cable | R7D17A |
| | HPE Alletra 6000 2x100Gb QSFP28 to QSFP28 3m Direct Attach Copper Cable | R7D18A |
| 2 | HPE Aruba Networking 25G SFP28 to SFP28 3m Direct Attach Copper Cable | JL488A |
| 2 | HPE Aruba Networking 25G SFP28 to SFP28 5m Direct Attach Copper Cable | JL489A |
| 2 | HPE 25Gb SFP28 to SFP28 3m Direct Attach Copper Cable | 844477-B21 |
| 12 | HPE 200GbE QSFP56 to 2xQSFP56 2m Direct Attach Copper Cable | R8M57A |
| 12 | HPE 200GbE QSFP56 to 2xQSFP56 2.5m Direct Attach Copper Cable | R8M58A |
| | HPE 100Gb QSFP28 to QSFP28 0.5m Direct Attach Copper Cable | R8M59A |
| | HPE Aruba Networking 100G QSFP28-QSFP28 3m Direct Attach Copper Cable | R9F74A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 1m Direct Attach Copper Cable | R9F77A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 5m Direct Attach Copper Cable | R9F78A |
| | HPE Aruba Networking 10G SFP+ to SFP+ 3m Direct Attach Copper Cable | R9F84A |
| Active Optical Cable (AOC) | ||
| Note # | Descriptions | SKU |
| 3 | HPE 40GbE QSFP+ to 4x10GbE SFP+ 5m Active Optical Cable | Q9S66A |
| 2 | HPE 25GbE SFP28 to SFP28 3m Smart Active Optical Cable | Q9S67A |
| 2 | HPE 25GbE SFP28 to SFP28 5m Smart Active Optical Cable | Q9S68A |
| 2 | HPE 25GbE SFP28 to SFP28 10m Smart Active Optical Cable | Q9S69A |
| 2 | HPE 25GbE SFP28 to SFP28 15m Smart Active Optical Cable | Q9S70A |
| | HPE 100GbE QSFP28 to QSFP28 5m Active Optical Cable | Q9S71A |
| 2 | HPE Aruba Networking 25G SFP28 to SFP28 7 m Active Optical Cable | R9F95A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 2m Active Optical Cable | R9F76A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 7m Active Optical Cable | R9F79A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 15m Active Optical Cable | R9F80A |
| | HPE Aruba Networking 100G QSFP28 to QSFP28 30m Active Optical Cable | R9F81A |
| | HPE BladeSystem c-Class QSFP+ to 4x10G SFP+ 15m Active Optical Cable | 721076-B21 |
| | HPE BladeSystem c-Class 40G QSFP+ to QSFP+ 15m Active Optical Cable | 720211-B21 |
| | HPE 100Gb QSFP28 to QSFP28 7m Active Optical Cable | 845410-B21 |
| | HPE 100Gb QSFP28 to QSFP28 15m Active Optical Cable | 845414-B21 |
| | HPE QSFP28 to 4x25Gb SFP28 7m Active Optical Cable | 845420-B21 |
| | HPE QSFP28 to 4x25Gb SFP28 15m Active Optical Cable | 845424-B21 |
| | HPE 100GbE QSFP28 2m Extended Temperature Active Optical Cable | S6B63A |
| 17,18 | Aruba 100G QSFP28 LC FR1 SMF 2km Transceiver | S1D17A/R9B63A |
| | HPE Storage 100GbE QSFP28 to QSFP28 5m Extended Temperature Active Optical Cable | S2T38A |
| | HPE Storage 100GbE QSFP28 to QSFP28 10m Extended Temperature Active Optical Cable | S2T39A |
| | HPE Storage 100GbE QSFP28 to QSFP28 15m Extended Temperature Active Optical Cable | S2T40A |
| | HPE Storage 100GbE QSFP28 to QSFP28 25m Extended Temperature Active Optical Cable | S2T41A |
| M-series 200 GbE pluggables – DAC/AOC/Optical transceivers | ||
| Note # | Descriptions | SKU |
| 9 | HPE 200Gb QSFP56 to QSFP56 0.5m Direct Attach Copper Cable | R5Z76A |
| 9 | HPE 200Gb QSFP56 to QSFP56 1m Direct Attach Copper Cable | R5Z77A |
| 9 | HPE 200Gb QSFP56 to QSFP56 2m Direct Attach Copper Cable | R5Z78A |
| 9 | HPE 200Gb QSFP56 to QSFP56 2.5m Direct Attach Copper Cable | R5Z79A |
| 9 | HPE 200Gb QSFP56 to QSFP56 5m Active Optical Cable | R5Z80A |
| 9 | HPE 200Gb QSFP56 to QSFP56 10m Active Optical Cable | R5Z81A |
| 9 | HPE 200Gb QSFP56 to QSFP56 15m Active Optical Cable | R5Z82A |
| 9,10 | HPE 200Gb QSFP56 MPO SR4 100m Transceiver | R5Z83A |
| 9,11 | HPE 200Gb QSFP56 LC CWDM4 FR4 Transceiver | R5Z84A |
| 12 | HPE 200Gb QSFP56 to 2x100Gb QSFP56 3m Active Optical Cable | R6F24A |
| 12 | HPE 200Gb QSFP56 to 2x100Gb QSFP56 5m Active Optical Cable | R6F25A |
| 12 | HPE 200Gb QSFP56 to 2x100Gb QSFP56 15m Active Optical Cable | R6F26A |
| 9 | HPE 200Gb QSFP56 to 4x50/25Gb SFP56 2.5m Direct Attach Copper Cable | R6F27A |
| 16 | HPE 200GbE QSFP56 VR2 50m Transceiver (APC) | S6B56A |
| M-series 400 GbE Pluggables – DAC/AOC/Optical transceivers | ||
| Note # | Descriptions | SKU |
| | HPE 400GbE QSFP-DD to QSFP-DD 0.5m Direct Attach Copper Cable | R8M44A |
| | HPE 400GbE QSFP-DD to QSFP-DD 1m Direct Attach Copper Cable | R8M45A |
| | HPE 400GbE QSFP-DD to QSFP-DD 2m Direct Attach Copper Cable | R8M46A |
| 9,13 | HPE 400GbE QSFP-DD to 2xQSFP56 1m Direct Attach Copper Cable | R8M51A |
| 9,13 | HPE 400GbE QSFP-DD to 2xQSFP56 2m Direct Attach Copper Cable | R8M52A |
| 9 | HPE 400GbE QSFP-DD to 4xQSFP56 1m Direct Attach Copper Cable | R8M55A |
| 9 | HPE 400GbE QSFP-DD to 4xQSFP56 2m Direct Attach Copper Cable | R8M56A |
| 9 | HPE 400GbE QSFP-DD to 8xSFP56 2m Direct Attach Copper Cable | R8M53A |
| 9 | HPE 400GbE QSFP-DD to 8xSFP56 2.5m Direct Attach Copper Cable | R8M54A |
| | HPE 400GbE QSFP-DD to QSFP-DD 5m Active Optical Cable | R8M47A |
| | HPE 400GbE QSFP-DD to QSFP-DD 15m Active Optical Cable | R8M48A |
| 15 | HPE 400GbE QSFP-DD to 2xQSFP56 5m Active Optical Cable | R8M49B |
| 15 | HPE 400GbE QSFP-DD to 2xQSFP56 15m Active Optical Cable | R8M50B |
| 16 | HPE 400GbE QSFP-DD VR4 50m Transceiver (APC) | S6B51A |
| 16 | HPE 400GbE OSFP VR4 50m Transceiver (APC) | S6B53A |
| | HPE 400GbE OSFP DR4 500m Transceiver | S6B55A |
| | HPE 400GbE QSFP-DD/OSFP 5m Active Optical Cable | S6B59A |
| | HPE 400GbE QSFP-DD/OSFP 15m Active Optical Cable | S6B60A |
| 14 | HPE 400GbE QSFP-DD DR4 500m Transceiver | R8M60B |
| 14 | HPE Aruba Networking 400G DR4 QSFP-DD MPO12 500m SMF Transceiver | S3N93A |
| | HPE 400GbE QSFP-DD MPO SR8 100m Transceiver | R8M63A |
| | HPE 400GbE QSFP-DD LC FR4 2km Transceiver | R8M64A |
| | HPE Aruba Networking 400G QSFP-DD to QSFP-DD 3m Active Optical Cable | S1D20A |
| | HPE Aruba Networking 400G QSFP-DD to QSFP-DD 7m Active Optical Cable | S1D21A |
| | HPE Aruba Networking 400G QSFP-DD to QSFP-DD 15m Active Optical Cable | S1D22A |
| | HPE Aruba Networking 400G QSFP-DD to QSFP-DD 30m Active Optical Cable | S1D23A |
| | HPE Aruba Networking 400G QSFP-DD to QSFP-DD 50m Active Optical Cable | S1D24A |
| 9 | HPE Aruba Networking 200G QSFP-DD to 2x QSFP28 100G 3m Active Optical Cable | S1D25A |
| 9 | HPE Aruba Networking 200G QSFP-DD to 2x QSFP28 100G 7m Active Optical Cable | S1D26A |
| 9 | HPE Aruba Networking 200G QSFP-DD to 2x QSFP28 100G 15m Active Optical Cable | S1D27A |
| 9 | HPE Aruba Networking 200G QSFP-DD to 2x QSFP28 100G 30m Active Optical Cable | S1D28A |
| 9 | HPE Aruba Networking 200G QSFP-DD to 2x QSFP28 100G 50m Active Optical Cable | S1D29A |
| 9 | HPE Aruba Networking 400G QSFP-DD to 2x QSFP56 200G 3m Active Optical Cable | S1D30A |
| 9 | HPE Aruba Networking 400G QSFP-DD to 2x QSFP56 200G 7m Active Optical Cable | S1D31A |
| 9 | HPE Aruba Networking 400G QSFP-DD to 2x QSFP56 200G 15m Active Optical Cable | S1D32A |
| 9 | HPE Aruba Networking 400G QSFP-DD to 2x QSFP56 200G 30m Active Optical Cable | S1D33A |
| 9 | HPE Aruba Networking 400G QSFP-DD to 2x QSFP56 200G 50m Active Optical Cable | S1D34A |
| 11,9 | HPE Aruba Networking 400G QSFP-DD to 4x QSFP56 100G 3m Active Optical Cable | S1D35A |
| 11,9 | HPE Aruba Networking 400G QSFP-DD to 4x QSFP56 100G 7m Active Optical Cable | S1D36A |
| 11,9 | HPE Aruba Networking 400G QSFP-DD to 4x QSFP56 100G 15m Active Optical Cable | S1D37A |
| 11,9 | HPE Aruba Networking 400G QSFP-DD to 4x QSFP56 100G 30m Active Optical Cable | S1D38A |
| 11,9 | HPE Aruba Networking 400G QSFP-DD to 4x QSFP56 100G 50m Active Optical Cable | S1D39A |
| | HPE Aruba Networking 400G QSFP-DD MPO-16 SR8 100m MMF Transceiver | S1D18A |
| 17 | HPE Aruba Networking 400G QSFP-DD MPO-12 eDR4 2km SMF Transceiver | S1D19A/R9B42A |
| Notes: 1. JG915A - Storage connectivity support for this transceiver is limited to 40Km. 2. HPE QSA28 (QSFP28 to SFP28) adapter (845970-B21) is compatible with all M-Series switches and is required with this transceiver to convert a QSFP+/QSFP28 slot to a single SFP+/SFP28 slot for 25G or 10G operation with this switch model. 3. The SN2010M 25G DAC connectivity to another M-Series switch or 3rd party switch is limited to a 0.5 m DAC cable. End device connectivity may use 1 m or a 3 m (26 gauge) DAC. 4. This RJ45 crossover cable is compatible and supported for use when directly connecting the two M-Series switch MGMT ports. When configuring MLAG and also utilizing in-band management, the MGMT0 ports of the two switches should be connected. 5. The 845972-B21 HPE 100 Gb QSFP28 Bidirectional XCVR does not interoperate with the JH419A and R0R40A HPE 100 Gb QSFP28 LC SWDM4 MM 100 m transceivers. 6. 100 Gbe SWDM4 LC transceivers JH419A and R0R40A are interoperable. 7. 10 Gbase-T SFP+ RJ45 transceiver supports maximum length 30M CAT6a cable. This 10Gabse-T transceiver is not qualified for use at 1 GbE and shall be operated only at 10 GbE. 8. Cumulus 5.9.2 and later revisions are required for support of the QSA28 and R0R41B in a QSA28 in SN3700CM, SN3700M, SN4600cM, and SN4700M switches. R0R41B transceiver supports maximum length 30M CAT6a cable. R0R41B 10Gabse-T transceiver is not qualified for use at 1 GbE and shall be operated only at 10 GbE. 9. All cable ports must be set as NRZ or PAM4. A mix between the two technologies is not supported. 10. The R8M61A class 6 power requirements support use in the SN4600cM ports 49 to 64. 11. Direct connect from SN4700M to SN3700M supported, PAM4 signals only. 12. All cable ports must be set as PAM4, NRZ is not supported. 13. R8M51A and R8M52A QSFP-DD to QSFP56 breakout DAC operates 2 x4-lanes at 2 x200G or 2 x100. 14. R8M60B and S3N93A support breakout 4x to other switches and adapters via an R8M61A. 15. The OSFP transceiver is not compatible with Nvidia’s SN5600M 800 GbE switch which requires a finned top OSFP transceiver. 16. APC connectors are not interchangeable with MPO connectors. APC connector inserted into an MPO connector will damage the APC connection alignment. 17. S1D19A/R9B42A eDR4 support breakout 4x to other switches and adapters via S1D17A/R9B63A FR1. 18. The S1D17A/R9B63A power requirements support use in the SN4700 ports swp1-32; SN3700M ports swp1-32; SN3700cM ports swp1-2, swp31-32; SN3420M ports swp53, swp55, swp57, swp59; SN4600cM ports swp49-64 | ||
Supported Optical Cables for all M-Series switch models | |
| Descriptions | SKU |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 10m Cable | QK729A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 8 Fiber 50m Cable | QK731A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 1m Cable | QK732A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 2m Cable | QK733A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 5m Cable | QK734A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 15m Cable | QK735A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 30m Cable | QK736A |
| HPE Premier Flex LC/LC Multi-mode OM4 2 Fiber 50m Cable | QK737A |
| HPE LC to LC Multi-mode OM3 2-Fiber 0.5m 1-Pack Fiber Optic Cable | AJ833A |
| HPE LC to LC Multi-mode OM3 2-Fiber 1.0m 1-Pack Fiber Optic Cable | AJ834A |
| HPE LC to LC Multi-mode OM3 2-Fiber 2.0m 1-Pack Fiber Optic Cable | AJ835A |
| HPE LC to LC Multi-mode OM3 2-Fiber 5.0m 1-Pack Fiber Optic Cable | AJ836A |
| HPE LC to LC Multi-mode OM3 2-Fiber 15.0m 1-Pack Fiber Optic Cable | AJ837A |
| HPE LC to LC Multi-mode OM3 2-Fiber 30.0m 1-Pack Fiber Optic Cable | AJ838A |
| HPE LC to LC Multi-mode OM3 2-Fiber 50.0m 1-Pack Fiber Optic Cable | AJ839A |
| HPE Premier Flex MPO/MPO OM4 100m Cable | H6Z30A |
| HPE Multi Fiber Push On to 4 x Lucent Connector 5m Cable | K2Q46A |
| HPE Multi Fiber Push On to 4 x Lucent Connector 15m Cable | K2Q47A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 1m Cable | Q1H63A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 2m Cable | Q1H64A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 5m Cable | Q1H65A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 15m Cable | Q1H66A |
| HPE Premier Flex MPO/MPO Multi-mode OM4 12 Fiber 30m Cable | Q1H67A |
| HPE Premier Flex MPO to 4xLC 30m Cbl | Q1H68A |
| HPE Premier Flex MPO to 4 x Lucent Connector 50m Cable | Q1H69A |
| HPE 5m Single-Mode LC/LC Fibre Channel Cable | AK346A |
| HPE Premier Flex MPO12 to MPO12 APC Single-mode 50m 1-pack Cable | R6F28A |
| HPE Premier Flex MPO12 to MPO12 APC Single-mode 100m 1-pack Cable | R6F29A |
| HPE Premier Flex MPO12 to MPO12 APC Single-mode 300m 1-pack Cable | R6F30A |
| HPE Premier Flex MPO12 to MPO12 APC Single-mode 500m 1-pack Cable | R6F31A |
| HPE Premier Flex Wide Band OM5 LC 2 Fibers 100m Cable | R9M64A |
| HPE Premier Flex Wide Band OM5 LC 2 Fibers 150m Cable | R9M65A |
| HPE Premier Flex Wide Band MPO OM5 8 Fibers 100m Cable | R9M62A |
| HPE Premier Flex MPO16 to 2xMPO8 OM4 5m Cable | S1H57A |
| HPE Premier Flex MPO16 to 2xMPO8 OM4 10m Cable | S1H58A |
| HPE Storage Premier Flex MPO16 to 4xMPO8 OM4 5m Cable | S2T36A |
| HPE Storage Premier Flex MPO16 to 4xMPO8 OM4 10m Cable | S2T37A |
| HPE Premier Flex MPO16 to MPO16 OM4 2m Cable | R4D51A |
| HPE Premier Flex MPO16 to MPO16 OM4 5m Cable | R4D52A |
| HPE Premier Flex MPO16 to MPO16 OM4 10m Cable | R4D53A |
| HPE Premier Flex MPO16 to MPO16 OM4 15m Cable | R4D54A |
| HPE Premier Flex MPO16 to MPO16 OM4 30m Cable | R4D55A |
| HPE Premier Flex MPO16 to 8xLC OM4 5m Cable | R4D56A |
| HPE Premier Flex MPO16 to 8xLC OM4 10m Cable | R4D57A |
| HPE Premier Flex MPO16 to 8xLC OM4 15m Cable | R4D58A |
| HPE Premier Flex MPO16 to 8xLC OM4 30m Cable | R4D59A |
| HPE MPO12 to 4xLC Single-mode 15m Fibre Cable | R4D60A |
| HPE MPO12 to 4xLC Single-mode 30m Fibre Cable | R4D61A |
| HPE MPO12 to 4xLC Single-mode 2m Fibre Cable | R4D62A |
| HPE MPO12 to 4xLC Single-mode 5m Fibre Cable | R4D63A |
| HPE MPO12 to 4xLC Single-mode 10m Fibre Cable | R4D64A |
| Note: The following 4 single-mode cables have APC connectors for use with the S6B55A and R8M60B transceivers. They are not compatible with the S6B51A or S6B53A. | |
| HPE Premier Flex MPO8 to MPO8 Single-mode 2m Cable | S6B70A |
| HPE Premier Flex MPO8 to MPO8 Single-mode 5m Cable | S6B71A |
| HPE Premier Flex MPO8 to MPO8 Single-mode 15m Cable | S6B72A |
| HPE Premier Flex MPO8 to MPO8 Single-mode 30m Cable | S6B73A |
| Note: The following 6 multi-mode cables have APC connectors for use with the S6B51A, S6B56A, and S6B53A transceivers. Connector damage occurs if they are inserted into a transceiver’s MPO connector. | |
| HPE Premier Flex MPO8 to MPO8 APC OM4 1m Cable | S6B64A |
| HPE Premier Flex MPO8 to MPO8 APC OM4 2m Cable | S6B65A |
| HPE Premier Flex MPO8 to MPO8 APC OM4 5m Cable | S6B66A |
| HPE Premier Flex MPO8 to MPO8 APC OM4 15m Cable | S6B67A |
| HPE Premier Flex MPO8 to MPO8 APC OM4 30m Cable | S6B68A |
| HPE Premier Flex MPO8 to MPO8 APC OM4 50m Cable | S6B69A |
| Note:
| |
| HPE Premier Flex MPO8 to 2xMPO4 APC OM4 5m Cable | S6B74A |
| HPE Premier Flex MPO8 to 2xMPO4 APC OM4 15m Cable | S6B75A |
| Model | HPE SN4600cM 100 GbE 64QSFP28 Switch S2T80A | HPE SN3700M 200 GbE 32QSFP56 Switch S2T79A | HPE SN4700M 400 GbE 32QSFP-DD Switch S2T81A |
|---|---|---|---|
| Description | 40/100 GbE Aggregation/ToR/EoR/ Super Spine | 40/50/100/200 GbE Aggregation/ToR/ Super Spine | 40/50/100/200/400 GbE Aggregation/ToR/EoR/ Super Spine |
| Ports Speeds | 64 x40/100 GbE Breakout – 128 x 1/10/25 GbE | 32 x40/100/200 GbE Breakout – 128 x1/10/25/50 GbE | 32 x40/100/200/400 GbE Breakout – 128 x1/10/25/50 GbE |
| Minimum Configuration | 64 QSFP28 Ports | 32 QSFP56 Ports | 32 QSFP-DD Ports |
| Size | 2U | 1U | 1U |
| Switching Capacity | 12.8 Tb/s | 12.8 Tb/s | 25.6 Tb/s |
| Processing Capacity | 8.4 Bpps | 8.33 Bpps | 8.4 Bpps |
| Forwarding Technology | Cut Through | Cut Through | Cut Through |
| Latency | 500 ns | 425 ns | 500 ns |
| Typical Power Consumption (ATIS) | 466 watts | 250 watts | 630 watts |
| Supported NOS** | NVIDIA Cumulus® Linux | NVIDIA Cumulus® Linux | NVIDIA Cumulus® Linux |
| System Memory | 8 GB | 8 GB | 16 GB |
| SSD Memory | 30 GB | 32 GB | 60 GB |
| Packet Buffer | 64 MB | 42 MB | 64 MB |
| 1 GbE Mgmt Port | 1 RJ45 | 1 RJ45 | 1 RJ45 |
| Serial Port | 1 RJ45 | 1 RJ45 | 1 RJ45 |
| USB Port | 1 Type A USB 2.0 | 1 Micro USB 2.0 | 1 Type A USB 2.0 |
| Airflow | Power-to-Connector airflow (P2C) airflow | Power-to-Connector airflow (P2C) airflow | Power-to-Connector airflow (P2C) airflow |
| Power Supplies | 2 (1+1 redundant) | 2 (1+1 redundant) | 2 (1+1 redundant) |
| Energy Efficiency | 80 Plus Gold | 80 Plus Gold | 80 Plus Gold |
| Fans | 3 (N+1 redundant) | 6 (N+1 redundant) | 6 (N+1 redundant) |
| Power Supplies with integrated fans | Frequency: 50-60Hz Input range: 100-264 Vac Input current 10A–6A @200 Vac-240 Vac C14 TO C15 EUR + CCC C14 TO C15 UL | Frequency: 50-60Hz Input range: 100–264 Vac Input current 13A-7A @200 Vac- 240 Vac IEC C14 To C13 | Frequency: 50-60Hz Input range: 100–264 Vac Input current 15A-10A @200 Vac-240 Vac C14 TO C15 EUR + CCC C14 TO C15 UL |
| Size | 3.46’’ x 16.85’’ x 22.3’’ (88 mm x 428 mm x 568.5 mm) | 1.72’’ x 16.84’’ x 22’’ (44 mm x 428 mm x 559 mm) | 1.72” x 16.85” x22.3” (44 mm x 428 mm x 568.5 mm) |
| Weight | 14.64 Kg (32.3 lbs) | 14 Kg (30.9 lbs) | 11.6 Kg (25.6 lbs) |
Environment | |
|---|---|
| Operating temperature | 0°C to 40°C Notes: SN4700M 0°C to 35°C |
| Non-Operating temperature | -40ºC to 70ºC |
| NEBs and ETSI operating temperature | -5°C to 55°C |
| Operating relative humidity (operational) | |
| Noncondensing | 10% to 85% |
| Operating Altitude | 0 - 3050 m |
| Compliant | RoHS |
| Safety/ EMC | CB, cTUVus, CE, CU, S_Mark, CE, FCC, VCCI, ICES, RCM, BSMI, KCC, CCC |
Electrical characteristics | |
|---|---|
| Frequency | 50/60 Hz |
| Voltage | 100 - 264 Vac |
Ethernet Ports Maximum High Power Support
- – SN3420M
- – Ports 1-6 Power Class 3 (2.5 W)
- – Ports 7-48 Power Class 1 (1.5 W)
- – Ports 49-52, 54, 56, 58, 60 Power Class 4 (3.5 W)
- – Ports 53, 55, 57, 59 Power Class 7 (5 W)
- – SN3700cM
- – Ports 1, 2, 31, 32 Power class 7 (5 W)
- – Ports 3-30 Power class 4 (3.5 W)
- – SN3700M
- – Ports 1-32 Power class 7 (5 W)
- – Ports 1, 2, 21, 22 Power class 8 (6.5 W)
- – SN4600cM
- – Ports 1-48 Power Class 4 (3.5 W)
- – Ports 49-64 Power Class 7 (5 W)
- – SN4700M
- – All Ports 1-32 Power Class 48 (12 W) – QSFP-DD new method Watt *4
- – SN2010M
- – Ports 1,2,17,18 Power Class 3 (2.5 W)
- – Ports 3-16 Power Class 1 (1.5 W)
- – Ports 19-22 Power Class 6 (4.5 W)
- – SN2100M
- – Ports 1,2,15,16 Power Class 7 (5 W)
- – Ports 3-14 Power Class 4 (3.5 W)
Acoustic
High-speed fan
- – SN4700M – 67.6 dB(A)
Typical power with passive cables (ATIS)
- – SN4700M
- – 2,149.65 BTUs per Hour (630 watts)
HPE Power Advisor
To address a need to accurately estimate power requirements and to ensure the appropriate levels of power and cooling and power-related operating costs, HPE created the HPE Power Advisor utility. The HPE Power Advisor utility provides accurate and meaningful estimates of the power needs for HPE servers, storage, and switches including M-series Ethernet switches.
Standards
- – 802.1D Bridging and Spanning Tree
- – 802.1p QOS
- – 802.1Q VLAN Tagging
- – 802.1w Rapid Spanning Tree
- – 802.1s Multiple Spanning Tree Protocol
- – 802.1AB Link Layer Discovery Protocol
- – 802.1Qaz ETS
- – 802.1Qbb PFC
- – 802.3ad Link Aggregation with LACP
- – 802.3ba
- – 802.3x Flow Control
- – 1000BASE-KX
- – 802.3ae 10 Gigabit Ethernet
SNMP MIBs
Due to licensing restrictions, Cumulus Linux does not install all MIBs. For the MIBs that Cumulus Linux does not install, you must add the “non-free” archive to /etc/apt/sources.list. To see which MIBs are on your switch, run ls /usr/share/snmp/mibs/.
| BGP4-MIB OSPFv2-MIB OSPFv3-MIB RIPv2-MIB | You can enable FRR SNMP support to provide support for OSPF-MIB (RFC-1850), OSPFV3-MIB (RFC-5643), and BGP4-MIB (RFC-1657). |
| CUMULUS-BGPVRF-MIB | Cumulus Linux also includes its own BGP unnumbered MIB for BGP unnumbered peers, defined in /usr/share/snmp/mibs/Cumulus-BGPUN-MIB.txt, which has the OID 1.3.6.1.4.1.40310.7. |
| CUMULUS-COUNTERS-MIB | Discard counters: Cumulus Linux also includes its own counters MIB, defined in /usr/share/snmp/mibs/Cumulus-Counters-MIB.txt. It has the OID 1.3.6.1.4.1.40310.2. |
| CUMULUS-RESOURCE-QUERY-MIB | Cumulus Linux includes its own resource utilization MIB, which is similar to using cl-resource-query. This MIB monitors layer 3 entries by host, route, nexthops, ECMP groups, and layer 2 MAC/BDPU entries. /usr/share/snmp/mibs/Cumulus-Resource-Query- MIB.txt defines this MIB, which has the OID 1.3.6.1.4.1.40310.1. |
| CUMULUS-SNMP-MIB | SNMP counters. For information on exposing CPU and memory information with SNMP, see this knowledge base article. |
| DISMAN-EVENT-MIB | Trap monitoring |
| ENTITY-MIB | Cumulus Linux supports the temperature sensors, fan sensors, power sensors, and ports from RFC 4133. Notes: The ENTITY-MIB does not show the chassis information in Cumulus Linux. |
| ENTITY-SENSOR-MIB | Physical sensor information (temperature, fan, and power supply) from RFC 3433. |
| HOST-RESOURCES-MIB | Users, storage, interfaces, process info, run parameters. |
| BRIDGE-MIB Q-BRIDGE-MIB | The dot1dBasePortEntry and dot1dBasePortIfIndex tables in the BRIDGE-MIB and dot1qBase, dot1qFdbEntry, dot1qTpFdbEntry, dot1qTpFdbStatus, and dot1qVlanStaticName tables in the Q-BRIDGE-MIB tables. You must uncomment the bridge_pp.py pass_persist script in /etc/snmp/snmpd.conf. |
| IEEE8023-LAG-MIB | Implementation of the IEEE 8023-LAG-MIB includes the dot3adAggTable and dot3adAggPortListTable tables. To enable this, edit /etc/snmp/snmpd.conf and uncomment or add the following lines: view systemonly included 1.2.840.10006.300.43 pass_persist.1.2.840.10006.300.43 /usr/share/snmp/ieee8023_lag_pp.py |
| IF-MIB | Interface description, type, MTU, speed, MAC, admin, operation status, counters. Notes: Cumulus Linux disables the IF-MIB cache by default. The non-caching code path in the IF-MIB treats 64-bit counters like 32-bit counters (a 64-bit counter rolls over after the value increments to a value that extends beyond 32 bits). To enable the counter to reflect traffic statistics using 64-bit counters, remove the -y option from the SNMPDOPTS line in the /etc/default/snmpd file. The example below first shows the original line, commented out, then the modified line without the -y option: cumulus@switch:~$ cat /etc/default/snmpd # SNMPDOPTS='-y -LS 0-4 d -Lf /dev/null -u snmp -g snmp -I -smux -p /run/snmpd.pid' SNMPDOPTS='-LS 0-4 d -Lf /dev/null -u snmp -g snmp -I -smux -p /run/snmpd.pid |
| IP-FORWARD-MIB | IP routing table. |
| IP-MIB (includes ICMP) | IPv4, IPv4 addresses counters, netmasks. |
| IPv6-MIB | IPv6 counters. |
| LLDP-MIB | Layer 2 neighbor information from lldpd (you need to enable the SNMP subagent in LLDP). You need to start lldpd with the -x option to enable connectivity to snmpd (AgentX). |
| LM-SENSORS MIB | Fan speed, temperature sensor values, voltages. The ENTITY-SENSOR MIB replaces this MIB. |
| NET-SNMP-AGENT-MIB | Agent timers, user, group config. |
| NET-SNMP-VACM-MIB | Agent timers, user, group config. |
| NOTIFICATION-LOG-MIB | Local logging. |
| SNMP-FRAMEWORK-MIB | Users, access. |
| SNMP-MPD-MIB | Users, access. |
| SNMP-TARGET-MIB | SNMP-TARGET-MIB. |
| SNMP-USER-BASED-SM-MIBS | Users, access. |
| SNMP-VIEW-BASED-ACM-MIB | Users, access. |
| TCP-MIB | TCP-related information. |
| UCD-SNMP-MIB | System memory, load, CPU, disk IO. |
| UDP-MIB | UDP-related information. |
| Date | Version History | Action | Description of Change |
|---|---|---|---|
| 02-Feb-2026 | Added | New SKUs where added:
| |
| Removed | Obsolete SKUs where removed:
| ||
| 01-Dec-2025 | Added | – Step 2: Options updated with new transceivers and cables, including:
– Supported Optical Cables section expanded with APC connector notes and new SKUs for MPO8/MPO4 cables (S6B64A–S6B75A). – Ethernet Ports Maximum High Power Support section introduced with updated port power classifications. | |
| 06-Oct-2025 | Changed | HPE Rebranding FY25 | |
| Removed | Obsolete SKUs removed - JW148A, P26659-B22 | ||
| 07-Jul-2025 | Changed | Overview section was updated - NVIDIA Cumulus® Linux Forwarding Table Size and Profiles Longest Prefix Match (LPM) for routing scalability specifications link was added. | |
| Removed | SKUs - R8M49A, R8M50A | ||
| 02-Jun-2025 | Changed | Configuration Information section was updated Obsolete SKUs were removed - 720199-B21 / 720202-B21 | |
| 13-Jan-2025 | Changed | Service and Support and Configuration Information sections were updated | |
| 03-Jun-2024 | Changed | Configuration Information and Technical Specifications sections were updated | |
| 06-May-2024 | New | New QuickSpecs |
© Copyright 2026 Hewlett Packard Enterprise Development LP. The information contained herein is subject to change without notice. The only warranties for Hewlett Packard Enterprise products and services are set forth in the express warranty statements accompanying such products and services. Nothing herein should be construed as constituting an additional warranty. Hewlett Packard Enterprise shall not be liable for technical or editorial errors or omissions contained herein.
a50007022enw, 17132 - Worldwide - V8 - 02-February-2026