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H3C S12500R is a switch router product launched by H3C for WAN, 5G bearer network and data center DCI interconnection scenarios. Forwarding performance and very rich wide-area traffic scheduling features.
S12500R is currently the industry's leading switching router product. A single machine can provide 3072 line-speed 10G ports/25G ports or 768 line-speed 40G/100G/400G ports, providing ultra-high-density 10G, 25G and high-density 40G, 100G, 400G capabilities; Faced with the burst WAN traffic, the "distributed ingress cache" technology is innovatively adopted, which can realize data cache for 200ms and meet the requirements of burst traffic in IPRAN, DCI and other network scenarios; at the same time, it supports independent control engine, detection engine, maintenance engine provides powerful control capability and 50ms high reliability guarantee for the system.
S12500R series include S12500R-48Y8C, S12500R-48C6D, S12504R, S12508R, S12516R, S12500R-2L, S12508CR, S12516CR eight models, which can adapt to the port density and performance requirements of different network scales, and provide a strong equipment guarantee for wide-area interconnection construction. At the same time, combined with H3C series routers, switches, security, iMC and SDN solutions, it provides a full range of solutions for wide-area convergence and interconnection scenarios.
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CLOS+ multi-grade multi-plane architecture, midplane free design, providing continuous bandwidth upgrade capability.
Supports high density 25G/40GE/ 100GE/ 400GE interfaces and can meet the existing and future application requirements of data centers.
With independent forwarding module, the control and data planes are separated. This can maximize the reliability of the equipment and guarantees the continuous upgrade of the bandwidth of subsequent products.
Dynamic and variable cell fragmentation is strictly switching with non-blocking, which improves the overall forwarding performance.
The S12500R adopts the new-generation operating system Comware V9 independently developed by H3C. Compared with the previous-generation operating system, on the basis of integrating rich network features, the S12500R has a further open architecture and modular software architecture, it supports containerized deployment and can carry third-party software applications.
Rich network features: Comware has rich basic device functions, network functions and management functions, while
Comware V9 provides comprehensive customization and tailoring capabilities: Linux infrastructure (Linux function modules, Docker capabilities), network functions, management functions (SNMP , NetConf, CLI...) can be tailored.
Openness and Programmability: The native Linux kernel is used to facilitate kernel upgrades, and at the same time, it has better openness (it is more convenient to for users to use third-party software to integrate open source Linux software into COMWARE), provide the ability to run third-party software seamlessly, and provide the interface which is open to programmability and supports user-defined network services.
Containerization: It supports containerization and integrates Docker. Comware can be deployed in Docker containers and run containerized Comware or third-party programs.
SRv6 is a future-oriented new-generation protocol. It naturally supports IPv6 and satisfies access to massive address spaces. SRv6 can identify applications and tenants, realize intelligent routing based on index such as delay and bandwidth, and ensure SLA. At the same time, SRv6 implements a unified protocol, which simplifies configuration.
SRv6 uses segments with a length of 128 bits to define network functions, and then by arranging the segments, a series of forwarding and processing behaviors of network devices can be implemented to complete service orchestration. Compared with MPLS SR protocol, it has stronger scalability and better compatibility with SDN controller, which is more conducive to deploying applications in DCI, MAN and other scenarios.
The notable feature of SRv6 is that the forwarding plane adopts IPV6. Based on the reachability of IPV6, it is easier to realize the interconnection of different networks. SRV6 is used for forwarding within a domain, and only ordinary IPV6 forwarding is required between domains. It does not need to be like MPLS which need to convert MPLS to IP and do a lot of complicated configuration.
The S12500R series switches support VXLAN (Virtual eXtensible LAN) technology, which is a Layer2 VPN technology based on IP networks and in the form of "MAC in UDP" encapsulation. VXLAN can provide Layer2 interconnection for decentralized physical sites based on existing service provider or enterprise IP networks, and can provide business isolation for different tenants.
S12500R series switches support EVPN (Ethernet Virtual Private Network, Ethernet Virtual Private Network), EVPN is a Layer2 VPN technology, the control plane uses MP-BGP to advertise EVPN routing information, and the data plane supports the use of VXLAN encapsulation to forward messages.
S12500R series switches support large-capacity ARP/ND, MAC, ACL table entries, which can adapt to the flattening requirements of large data center networks.
S12500R series switches support 400G 120km ZR+ transceiver, which is suitable for DCI connection scenarios, and can partially replace the transmission equipment through the ZR+ module, which is more convenient to manage.
IEEE 1588v2 is a master-slave synchronization system. During the synchronization process of the system, the master clock periodically publishes the PTP time synchronization protocol and time information. The slave clock port receives the timestamp information sent by the master clock port and the system calculates the line time delay and master-slave time difference accordingly, and use this time difference to adjust the local time, so that the slave device time keeps the same frequency and phase as the master device time. IEEE1588v2 can realize frequency synchronization and time synchronization at the same time. The accuracy of time transfer mainly depends on the accuracy of the frequency of the two condition counters and the symmetry of the link. Compared with traditional timing technology, IEEE1588v2 has obvious advantages(It adopts two-way channel and the precision is ns-level. The cost is low and it can adapt to different access environments and so on. ) IEEE1588v2 has become an inevitable trend of development under the background of increasing precision requirement in different industries.
It adopts innovative hardware design and provides powerful control capability and high reliability guarantee for the system
through independent control engine, detection engine and maintenance engine.
The independent control engine provides a powerful main control CPU system, which can easily handle various protocol packets and control packets and supports fine control of protocol packets, providing the system with a complete ability to resist protocol packet attacks;
An independent detection engine provides a highly reliable and high-performance FFDR (Fast Fault Detection and Restoration-Fast Fault Detection and Restoration) system for fast fault detection such as BFD. It is linked with the control plane protocol to support fast protection switching and fast convergence, which can realize fast fault detection and ensure uninterrupted services;
Independent maintenance engine, intelligent EMS (Embedded Maintenance Subsystem) CPU system, the CPU system supports intelligent power management, and can support sequential power-on and power-off of boards (reduces the power shock caused by power-on of boards at the same time) , improve equipment life, reduce electromagnetic radiation, reduce system power consumption), equipment online status check.
The independent monitoring engine, completely separated from the service control plane, monitors the working status of the device hardware in real time, including power load and power adjustment, automatic fan speed adjustment and dynamic energy allocation of the whole machine.
The S12500R series products provide a dedicated FFDR system for fast fault detection such as BFD, and cooperate with the control plane protocol to support fast protection switching and fast convergence.
Support BFD for VRRP/BGP/IS-IS/RIP/OSPF static routes, etc.
Support NSR/GR for OSFP/BGP/IS-IS etc.
The hardware of the control engine and the switching fabric board is independent of each other, which realizes the physical separation of the control plane and the forwarding plane. The control engine is 1+1 redundant; the switching fabric board is N+M redundant; the fan system is redundantly designed; the power module is N+M redundant ; Maximize the fault isolation capability and reliability of the system.
In the face of the burst traffic of the next generation data center, the "distributed ingress cache" technology is innovatively adopted. Each port can precisely perform accurate bandwidth allocation and traffic shaping for all service flows flowing to the port, and the precise scheduling of the forwarding plane ensures that the distributed cache in the direction of ingress is supported, and the cache space distributed on each line card is effectively shared and utilized with a better caching effect.
The network application model has been transformed from C/S to B/S model. The change of application mode has led to the increase of network burst traffic and the large cache mechanism has become an urgent requirement of network equipment. The S12500R supports 1600ms burst traffic per 10 Gigabit port, combined with the distributed ingress caching mechanism, it meets the needs of high burst traffic in large data centers.
A single chip supports 8GB cache, and the line card supports a maximum of 32GB (4*8GB, each chip is independent and cannot be shared).
The whole machine supports a maximum of 64K hardware queues, supports refined QoS and traffic management. It can be configured to assign different priorities and queues to different users and different service flows according to requirements, ensuring different bandwidth, service delay and jitter performance.
The online status detection mechanism works through a dedicated maintenance engine. It can detect the switching network board, backplane communication channel, business communication channel, key chips, memory and other parts of the device. Once the relevant module fails, it will be reported to the system through EMS.
The board isolation function can isolate the designated board from the forwarding plane and no longer participate in the forwarding. The isolated board is still in the control plane and can be managed. The board can perform real-time diagnosis, CPLD upgrade and other business processing, without affecting the business of the whole system.
Supports Ethernet OAM and provides a variety of device-level and network-level fault detection methods.
The S12500R series products are designed based on the OAA (Open Application Architecture) concept and innovatively launch an open service platform.
Through the intelligent EMS engine system, the S12500R series products support the intelligent management of power supply, and can support the sequential power-on of single boards (reduce the power shock caused by the simultaneous power-on of single boards, improve equipment life, and reduce electromagnetic radiation), and can control power-off of the singleboard, isolate faulty/idle boards, and reduce system power consumption.
The fans of the S12500R series are high-efficiency PWM speed-adjustable fans, which support stepless speed regulation. The system can automatically collect the board temperature, calculate the fan speed adjustment curve according to the actual situation of the device, and deliver the speed adjustment command to the fan. The system supports fan status monitoring (speed monitoring, fault alarm, etc.), which can automatically adjust the speed according to the ambient temperature and board configuration, reduce equipment power consumption and operating noise, effectively reduce ambient noise and prolong fan life.
S12500R series products support automatic detection of internal ports. When a slot is not configured with an interface board, or when a port is not connected to a cable, the system can automatically close the corresponding internal port, saving the power consumption of the whole machine.
The minimum power consumption of 10G port is less than 3.4W, the minimum power consumption of 40G port is less than 10.4W, the minimum power consumption of 100G port is less than 13.8W, and the minimum power consumption of 400G port is less than 20.3W
S12500R series products adopt front-to-rear straight-through ventilation and strict front-to-rear air duct design, high ventilation and heat dissipation efficiency, energy saving and environmental protection, and can meet the requirements of efficient heat dissipation and energy consumption of data center equipment rooms.
Item | S12500R-48Y8C | S12500R-48C6D | S12504R | S12508R | S12516R | S12500R-2L | S12508CR | S12516CR |
Switching capacity | 4T | 14.4T | 387T/1161T | 645T/1935T | 1290T/3870T | 172T/516T | 967T/2903T | 1935T/5806T |
Throughput | 900Mpps | 2700Mpps | 115,200Mpps | 230,400Mpps | 460,800Mpps | 57,600Mpps | 460,800Mpps | 921,600Mpps |
MAC address table | NORMAL:500K;ROUTING:155k | |||||||
IPv4 FIB | 1.3M | 3.9M | 3.9M | |||||
IPv6 FIB | 1.3M | 3.9M | 3.9M | |||||
Flash | 4GB | |||||||
SDRAM | 32G | |||||||
CPU | 2.2GHz@4Core | |||||||
400G Port | / | 6 | S12504R: Supports up to 4 LPU; S12508R: Supports up to 8 LPU; S12516R: Supports up to 16 LPU; S12500R-2L: Supports up to 2 LPU; S12508CR: Supports up to 8 LPU; S12516CR: Supports up to 16 LPU | |||||
100G Port | 8 | 48 | ||||||
25G Port | 48 | / | ||||||
MPU slots | / | / | 2 | 2 | 2 | 2 | 2 | 2 |
LPU slots | / | / | 4 | 8 | 16 | 2 | 8 | 16 |
Switching fabric module slots | / | / | 6 | 6 | 6 | / | 9 | 9 |
Weight (full configuration) | ≤9.2kg | ≤14.7kg | ≤100kg | ≤190kg | ≤350 kg | ≤70 kg | ≤400kg | ≤620kg |
Dimensions (H x W x D) mm | 44 x 440 x 460(1U) | 65.5 x 440 x 660 (1.5U) | 264 x 440 x 845 | 531 x 440 x 845 | 931x440x845 | 133 x 440 x 895(3U) | 842 x442 x920(19U) | 1331 x442 x920(30U) |
Redundancy | Redundant MPUs, power modules, and fan trays for S12500R-2L Redundant power modules, and fan trays for S12500R-48Y8C/S12500R-48C6D Redundant MPUs, switching fabric modules, power modules, and fan trays for other | |||||||
Temperature | Operating temperature: 0°C to 40°C (32°F to 104°F) Storage temperature: -40°C to 70°C (-40°F to 158°F) | |||||||
Humidity | Operating Humidity: 5% to 95% (non-condensing) Storage Humidity: 5% to 95% (non-condensing) | |||||||
Green | WEEE,RoHS | |||||||
Safety | CE, UL/cUL, FCC-PART15, VCCI,etc. |
Item | Feature description |
Device Virtualization | M-LAG(DRNI) |
S-MLAG | |
Network Virtualization | BGP-EVPN |
VxLAN | |
VxLAN | L2 VxLAN gateway |
L3 VxLAN gateway | |
Distributed VxLAN gateway | |
Centralized VxLAN gateway | |
EVPN VxLAN | |
manual configured VxLAN | |
IPv4 VxLAN tunnel | |
IPv6 VxLAN tunnel | |
QinQ VxLAN access | |
VxLAN DCI, vxlan mapping and route regeneration to interconnect DCs by L2 and L3 | |
VxLAN multicast | |
EVPN-VxLAN multicast | |
SR/SRv6 | MPLS SR |
TI-LFA FRR | |
BGP-EPE | |
MPLS TE policy | |
SRv6 | |
EVPN VPLS over SRv6 | |
EVPN VPWS over SRv6 | |
MPLS L3VPN over SRv6 | |
EVPN L3VPN over SRv6 | |
SRv6 BE | |
SRv6 TE | |
MPLS/VPLS | Support L3 MPLS VPN |
Support L2 VPN: VLL (Martini, Kompella) | |
Support MCE | |
Support MPLS OAM | |
Support VPLS, VLL | |
Support hierarchical VPLS and QinQ+VPLS access | |
Support P/PE function | |
Support LDP protocol | |
SDN | H3C SeerEngine-DC |
H3C SeerEngine-WAN | |
Lossless network | PFC and ECN |
DCBX | |
RDMA and ROCE | |
PFC deadlock watchdog | |
ECN overlay | |
ROCE stream analysis | |
Programmability | Openflow1.3 |
Netconf | |
Ansible | |
Python//TCL/Restful API to realize DevOps automated operation and maintenance | |
Traffic analysis | Sflow |
Netstream | |
VLAN | Port-based VLANs |
VLAN mapping | |
MAC address | Dynamic learning and aging of mac address entries |
Dynamic,static and blackhole entries | |
Mac address limiting on ports | |
IPv4 routing | RIP(Routing Information Protocol) v1/2 |
OSPF (Open Shortest Path First) v1/v2 | |
ISIS(Intermediate System to Intermediate system) | |
BGP (Border Gateway Protocol) | |
Routing policy | |
VRRP | |
PBR | |
IPv6 routing | RIPng |
OSPFv3 | |
IPv6 IS IS | |
BGP4+ | |
Routing policy | |
VRRP | |
PBR | |
Multicast
| IGMP snooping |
MLD snooping | |
IPv4 and IPv6 multicast VLAN | |
IGMP V3 | |
PIM-SM and PIM-SSM | |
PIM-DM | |
MSDP | |
IPv4 and IPv6 PIM snooping | |
IGMP and MLD | |
PIM and IPv6 PIM | |
Reliability | LACP |
LLDP | |
STP/RSTP/MSTP protocol, PVST compatible | |
STP Root Guard and BPDU Guard | |
RRPP and ERPS | |
Ethernet OAM | |
Smartlink | |
DLDP | |
BFD for OSPF/OSPFv3, BGP/BGP4, IS-IS/IS-ISv6, PIM/IPM for IPv6 and Static route | |
VRRP and VRRPE | |
QOS | Weighted Random Early Detection (WRED) and tail drop |
Flexible queue scheduling algorithms based on port and queue, including strict priority (SP), Weighted Round Robin (WRR), Weighted Fair Queuing (WFQ), SP + WRR, and SP + WFQ. | |
Traffic shaping | |
Packet filtering at L2 (Layer 2) through L4 (Layer 4); flow classification based on source MAC address, destination MAC address, source IP (IPv4/IPv6) address, destination IP (IPv4/IPv6) address, port, protocol, and VLAN to apply qos policy,including mirroring,redirection,priority remark etc. | |
Committed access rate (CAR) | |
Account by packet and byte | |
COPP | |
Telemetry | gRPC |
ERSPAN | |
Mirror on drop | |
Telemetry Stream | |
Packet trace | |
Packet capture | |
Configuration and maintenance | Console telnet and SSH terminals |
SNMPv1/v2/v3 | |
ZTP | |
System log | |
File upload and download via FTP/TFTP | |
NQA | |
ping,tracert | |
NTP | |
PTP(1588v2) | |
G8275.1 | |
SyncE | |
GIR Graceful Insertion and Removal | |
Security and management | Macsec |
Hierarchical management and password protection of users | |
Authentication methods,including AAA,RADIUS and HWTACACS | |
Support DDos, ARP attack and ICMP attack function | |
SSH 2.0 | |
HTTPS | |
SSL | |
PKI | |
Boot ROM access control (password recovery) | |
RMON |
Item | Description | S12500R | 12500R-48Y8C/12500R-48C8D |
Virtualization | M-LAG device number | 2 | 2 |
ES-multihoming device number | 8 | 8 | |
ED group | 8 | 8 | |
ACL | max number of ingress ACLs | 51200 | 51200 |
Maximum number of Ingress QACL CARs | 8K | 8K | |
max number of ingress Counter | 43008(shared between inbound and outbound ) | 43008(shared between inbound and outbound ) | |
max number of egress Car | 8K | 8K | |
max number of egress Counter | 8K | 8K | |
Forwarding table | Jumbo frame length(byte) | 960 | 9960 |
Mirroring group | 6 | 6 | |
max number of MACs per switch | Up to 500K | Up to 500K | |
max number of ARP entries IPv4 | 88K | 88K | |
max ND table size for IPv6 | 88K | 88K | |
max number of unicast routes IPv4 | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
max number of unicast routes IPv6 | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
IPv4 l2 multicast group | 4K | 4K | |
IPv4 l3 multicast group | 4K | 4K | |
IPv4 l2 multicast routing | 96K | 12500R-48Y8C: 112K 12500R-48C8D: 96K | |
IPv6 l2 multicast routing | 96K | 12500R-48Y8C: 112K 12500R-48C8D: 96K | |
IPv4 l3 multicast routing | 96K | 12500R-48Y8C: 112K 12500R-48C8D: 96K | |
IPv6 l3 multicast routing | 96K | 12500R-48Y8C: 112K 12500R-48C8D: 96K | |
IPv6 l2 multicast group | 4K | 4K | |
IPv6 l3 multicast group | 4K | 4K | |
LAGG group | 1024 | 1024 | |
LAGG member per group | 256 | 256 | |
ECMP group | 22527 | 22527 | |
ECMP member per group | 256 | 256 | |
VRF | 8K | 8K | |
Interface | Loopback interface number | 1023 | 1023 |
L3 sub interface number | 8K | 8K | |
SVI interface number | 4094 | 4094 | |
SVI second ip | 8191 | 8191 | |
VxLAN AC number | 16K | 16K | |
VxLAN VSI number | 16K | 16K | |
VxLAN tunnel number | 15K | 15K | |
VSI interface number | 16K | 16K | |
VSI interface second ip | 8192 | 8192 | |
Total VRRP virtual mac-address numbers | 16 | 16 | |
IPv4 tunnel number | 2K | 2K | |
IPv6 tunnel number | 2K | 2K | |
VLAN number | 4094 | 4094 | |
Performance | BFD session | 2000 50ms*3 | 2000 50ms*3 |
RIP routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
RIPng routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
OSPF routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
OSPF process number | 3.2K | 3.2K | |
OSPF peer | 1000 | 1000 | |
OSPFv3 routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
OSFPv3 process number | 3K | 3K | |
BGP Peer number | 2000 | 2000 | |
BGP routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
BGP4+ Peer | 2000 | 2000 | |
BGP4+ routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
ISIS process number | 1000 | 1000 | |
ISIS routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
ISISv6 process number | 1000 | 1000 | |
ISISv6 routing table | 3.9M | 12500R-48Y8C: 1.3M 12500R-48C8D: 3.9M | |
RIB | 8M | 8M | |
MSTP instance | 64 | 64 | |
PVST instance | 128 | 128 | |
PVST logical port number | 1000 | 1000 | |
VRRP VRID | 16 | 16 | |
VRRP group | 4096 | 4096 | |
NQA group | 5K | 5K | |
Static table | static mac-address | 20480 | 20480 |
static ARP | 8192 | 8192 | |
static ND | 1024 | 1024 | |
static IPv4 routing table | 2048000 | 2048000 | |
static IPv6 routing table | 524k | 524k |
Product ID | Product Description |
LS-12500R-2L | H3C S12500R-2L Ethernet Switch Router Chassis |
LS-12504R | H3C S12504R Ethernet Switch Router Chassis |
LS-12508R | H3C S12508R Ethernet Switch Router Chassis |
LS-12516R | H3C S12516R Ethernet Switch Router Chassis |
LS-12508CR | H3C S12508CR Ethernet Switch Router Chassis |
LS-12516CR | H3C S12516CR Ethernet Switch Router Chassis |
LS-12500R-48Y8C | H3CS12500R-48Y8CEthernetSwitchRouterwith48SFP28Portsand8QSFP28Ports |
LS-12500R-48C6D | H3C S12500R-48C6D Ethernet Switch Router with 48 QSFP28 Ports and 6 QSFP-DD Ports |
LSXM1CMUR1 | H3C S12500CR Switch Environment Management Module |
LSXM1SUPKR1 | H3C S12500CR Supervisor Engine Unit |
LSXM1SUP04TR1 | H3C S12504R Supervisor Engine Unit |
LSXM1SUPER1 | H3C S12500R Supervisor Engine Unit |
LSXM1SFK04FR1 | H3C S12504R Fabric Module,Type K(Class F) |
LSXM1SFK08ER1 | H3C S12508R Fabric Module,Type K(Class E) |
LSXM1SFK08FR1 | H3C S12508R Fabric Module,Type K(Class F) |
LSXM1SFK08GR1 | H3C S12508R Fabric Module,Type K(Class G) |
LSXM1SFK16GR1 | H3C S12516R Fabric Module,Type K(Class G) |
LSXM1SFK16ER1LSXM1SFK08ER1 | H3C S12516R Fabric Module,Type K(Class E)H3C S12508R Fabric Module,Type K(Class E) |
LSXM1SFK08ER1 | H3C S12508R Fabric Module,Type K(Class E) |
LSXM1SFK08FR1 | H3C S12508R Fabric Module,Type K(Class F) |
LSXM1SFK08GR1 | H3C S12508R Fabric Module,Type K(Class G) |
LSXM1SFK16ER1 | H3C S12516R Fabric Module,Type K(Class E) |
LSXM1SFK16GR1 | H3C S12516R Fabric Module,Type K(Class G) |
LSXM1SFK08FR1 | H3C S12508R Fabric Module,Type K(Class F) |
LSXM1SFK08GR1 | H3C S12508R Fabric Module,Type K(Class G) |
LSXM1CDQ24KBR1 | H3C S12500R 24-Port 400GBASE Ethernet Optical Interface Module(QSFP-DD)(KB) |
LSXM1CGQ48KBR1 | H3C S12500R 48-Port 100GBASE Ethernet Optical Interface Module(QSFP28)(KB) |
LSXM1CDQ36KBR1 | H3C S12500CR 36-Port 400GBASE Ethernet Optical Interface Module(QSFP-DD)(KB) |
LSXM1CGQFX16KBR1 | H3C S12500R 16-Port 100GBASE FlexE Ethernet Optical Interface Module(QSFP28) |
LSXM1CGMS48KBR1 | H3C S12500R 48-Port 100GBASE MACsec Ethernet Optical Interface Module (QSFP28) |
LSXM1CCQ48KBR1 | H3C S12500R 48-Port 200GBASE Ethernet Optical Interface Module (QSFP56)(KB) |
LSXM1CGQ48KB1 | H3C S12500X-AF 48-Port 100GBASE Ethernet Optical Interface Module(QSFP28)(KB) |
LSXM1MOD24KBR1 | H3C S12500R 24KBR Flexible Line Processing Platform Module |
LSXM1SUP02LR1 | H3C S12500R-2L Supervisor Engine Unit |
LSXM1SUP02TR1 | H3C S12500R-2L Supervisor Engine Unit |
LSXM1CGQ72KCR1 | H3C S12500R 36-Port 200GBASE Ethernet Optical Interface (QSFP56)/72-Port 100GBASE Ethernet Optical Interface Module (QSFP28)(KC) |
PSR3000-54AHD | 3000W AC & 240V-380V HVDC Power Supply |
PSR3000-54A | 3000W AC Power Supply Module |
PSR2400-54A | AC Power Module,2400W |
PSR2400-54D | DC Power Module,2400W |
CR-PEM-AC3000 | AC 3000W Power Tray |
PSR650B-12AHD-F | 650W HVDC Power Supply |
PSR650B-12A2-F | 650W AC Power Supply (Power Panel Side Intake Airflow) |
LSVM3PSRA | H3C 1800W AC Power Supply (Power Panel Side Exhaust Airflow) |
PSR1600C-12A-B | 1600W AC Power Supply Module (Power Panel Side Exhaust Airflow) |
CR-PEM-DC2000 | DC 2000W Power Tray |
CR-PEM-HVDC3000 | HVDC 3000W Power Tray |
PSR650B-12A2-F | 650WACPowerSupply(PowerPanelSideIntakeAirflow) |
FAN-40B-1-C | FanModule(FanPanelSideExhaustAirflow,ElectronicLabelSupported) |
FAN-40F-1-D | H3CFanModule(FanPanelSideIntakeAirflow) |
LSXM104XFAN | H3C S12504X-AF Ethernet Switch Fan Module |
LSXM104XFANH | H3C S12504X-AF Ethernet Switch High Power Fan Module |
LSXM108XFAN | H3C S12508X-AF Ethernet Switch Fan Module |
LSXM108XFANH | H3C S12508X-AF Ethernet Switch High Speed Fan Module |
CAB-CON-1.8m | Single Cable, Console Serial Port Cable,1.8m,D9F,28UL20276(4P)(P296U),MPH-8P8C |
CAB-Console-1.8m-W31R | Console Cable,1.8m,RJ45P,UL2725(3C28AWG),USB AP |
LSVM1BSR10 | H3C S9810 Bottom Support Rails,630mm~900mm |
LSXM1BFP08A | 08 Fabric Blank Filler Panel |
LSTM2KSGD0 | Slide Rail Accessories,500mm-800mm |
LSXM1BSR | 1U Bottom-Support Rails,630mm~900mm |
LSXM1BFP16A | 16 Fabric Blank Filler Panel |
QSFP-100G-D-AOC-10M | 100G QSFP28 to 100G QSFP28 10m Active Optical Cable |
QSFP-100G-D-CAB-1M | 100G QSFP28 to 100G QSFP28 1m Passive Cable |
QSFP-100G-D-AOC-20M | 100G QSFP28 to 100G QSFP28 20m Active Optical Cable |
QSFP-100G-D-CAB-3M | 100G QSFP28 to 100G QSFP28 3m Passive Cable |
QSFP-100G-D-CAB-5M | 100G QSFP28 to 100G QSFP28 5m Passive Cable |
QSFP-100G-D-AOC-7M | 100G QSFP28 to 100G QSFP28 7m Active Optical Cable |
QSFP-100G-BIDI-MM850 | 100G QSFP28 Optical Transceiver Module (850nm,100m OM4,BIDI,LC) |
QSFP-100G-SR4-MM850-H | 100G QSFP28 Transceiver (850nm,100m OM4,SR4,MPO) |
QSFP-100G-SR4-MM850 | 100G QSFP28 Optical Transceiver Module (850nm,100m OM4,SR4,MPO) |
QSFP-100G-SWDM4-MM850 | 100G QSFP28 Optical Transceiver Module (850nm,100m OM4,SWDM4,LC) |
QSFP-100G-eSR4-MM850 | 100G QSFP28 Optical Transceiver Module (850nm,300m OM4,eSR4,MPO) |
QSFP-100G-PSM4-SM1310 | 100G QSFP28 Optical Transceiver Module (1310nm,500m,PSM4,MPO/APC) |
QSFP-100G-LR4L-WDM1300 | 100G QSFP28 Optical Transceiver Module (1310nm,2km,LR4L,CWDM4,LC) |
QSFP-100G-LR4-WDM1300 | 100G QSFP28 Optical Transceiver Module(1310nm,10km,LR4,WDM,LC) |
QSFP-100G-ER4L-WDM1300 | 100G QSFP28 Optical Transceiver Module (1310nm,40km,ER4L,WDM,LC) |
QSFP-100G-ZR4-WDM1300 | 100G QSFP28 Optical Transceiver Module (1300nm,80km,ZR4,WDM,LC) |
LSWM1QSTK0 | 40G QSFP+ Cable 1m |
LSWM1QSTK1 | 40G QSFP+ Cable 3m |
LSWM1QSTK2 | 40G QSFP+ Cable 5m |
QSFP-40G-D-AOC-10M | 40G QSFP+ to 40G QSFP+ 10m Active Optical Cable |
QSFP-40G-D-AOC-20M | 40G QSFP+ to 40G QSFP+ 20m Active Optical Cable |
QSFP-40G-D-AOC-7M | 40G QSFP+ to 40G QSFP+ 7m Active Optical Cable |
QSFP-40G-BIDI-SR-MM850 | QSFP+ 40GBASE BIDI Optical Transceiver Module (850nm,100m,SR) |
QSFP-40G-BIDI-WDM850 | QSFP+ 40GBASE BIDI Optical Transceiver Module (850nm,300m) |
QSFP-40G-LR4-PSM1310-A | QSFP+ 40GBASE Optical Transceiver Module (1310nm,10km,MPO/APC,LR4,Parallel Single Mode) |
QSFP-40G-SR4-MM850 | QSFP+ 40GBASE Optical Transceiver Module (850nm,100m,SR4,Support 40G to 4*10G) |
QSFP-40G-CSR4-MM850 | QSFP+ 40GBASE Optical Transceiver Module (850nm,300m,CSR4,Support 40G to 4*10G) |
QSFP-40G-LR4L-WDM1300 | QSFP+ 40GBASE Optical Transceiver Module (1310nm,2km,LR4L,LC) |
QSFP-40G-LR4-WDM1300 | QSFP+ 40GBASE Optical Transceiver Module (1310nm,10km,LR4,LC) |
QSFP-40G-LX4-WDM1300 | QSFP+ 40G Optical Transceiver Module(1310nm,150m,OM3,LX4) |
QSFP-40G-ER4-WDM1300 | QSFP+ 40GBASE Optical Transceiver Module (1310nm,40km,ER4,LC) |
QSFP-40G-LR4-PSM1310 | QSFP+ 40GBASE Optical Transceiver Module (1310nm,10km,MPO/APC,LR4,Parallel Single Mode) |
QSFP56-200G-FR4-WDM1300 | 200G QSFP56 Single-Mode Optical Transceiver Module (1300nm,2km,FR4,SMF/LC) |
QSFP56-200G-SR4-MM850 | 200G QSFP56 Multimode Optical Transceiver Module (850nm,100m,OM4,70m OM3,SR4,MPO12/UPC) |
QSFPDD-400G-LR4-WDM1300-DC | 400G QSFP-DD Single-Mode Optical Transceiver Module(for Data Center Only)(1300nm,10km,LR4,LC) |
QSFPDD-400G-LR8-WDM1300 | 400G QSFP-DD Single-Mode Optical Transceiver Module (1300nm,10km,LR8,LC) |
QSFPDD-400G-ZR-A | 400G QSFP-DD Single-Mode Coherent Optical Transceiver Module (120km,Tunable,ZR,LC) |
QSFPDD-400G-FR4-WDM1300 | 400G QSFPDD Single-Mode Optical Transceiver Module(1300nm,2km,FR4,LC) |
QSFPDD-400G-SR8-MM850 | 400G QSFPDD Multimode Optical Transceiver Module(850nm,100m OM4,70m OM3,SR8,MPO16/APC,1-to-2 Breakout Supported) |
QSFPDD-400G-SR4-MM850 | 400G QSFPDD Multimode Optical Transceiver Module(850nm,50m OM4,30m OM3,SR4,MPO12/APC,1-to-2/1-to-4 Breakout Supported) |