H3C S10500 Series Switches
The H3C S10500 switch series is designed for the data center cloud networks, next-generation enterprise core networks, and MAN convergence. It uses H3C's proprietary operating system Comware V5 and V7 and provides the following features:
- CLOS-based architecture that support 40 GE and 100 GE standards
- TRILL, MDC (Multitenant Devices Context), EVI (Ethernet Virtualization Interconnect), VXLAN, EVB and FCOE
- IRF2 (Intelligent Resilient Framework version 2) & IRF3 (Intelligent Resilient Framework version 3)
- Convergence of MPLS, VPN, and IPv6.
The S10500 switch series includes S10504, S10506, S10508, S10508-V, S10510, and S10512 models, meeting the need of different port density and performance requirements.
Features:
Advanced CLOS multi-grade multi-plane switching architecture
Adopt CLOS multi-grade multi-plane architecture, providing industry leading port densitySupports high-density 40GE and 100GE interfaces and can meet the existing and future application requirements of data centers.
Adopts independent switching fabric modules and MPU engines to improve device availability and ensure bandwidth expansion.
Innovative multi-engine design
Independent control, detection, and maintenance engines provide powerful control capability and millisecond-level HA.Independent control engine - Uses a powerful CPU system that can efficiently process protocol and control packets, providing refined control for protocol packets and comprehensive protection against protocol packet attacks.
Independent detection engine - Provides highly reliable Fast Fault Detection and Restoration (FFDR) such as BFD and OAM, which can interact with protocols on the control plane to implement millisecond-level failover and convergence, ensuring service continuity.
Independent maintenance engine - a CPU system that provides smart power management, including sequential power-on and power-off and device status check. Sequential power-on and power-off reduces power impulse, electromagnetic radiation, power consumption, and extends the device lifespan.
Virtualization technologies - IRF2
IRF2 can virtualize up to four S10500 switches into one logical IRF fabric. IRF2 delivers the following benefits:High Availability (HA) - Patented hot standby technology to provide data backup and non-stop forwarding on the control plane and data plane. This improves availability and performance, eliminates single-point failures, and ensures service continuity.
Distribution - Multi-chassis link aggregation to enable load sharing and backup over multiple uplinks, improving redundancy and link utilization.
Easy Management - A single IP address to manage the whole IRF fabric, which simplifies device and topology management, improving operating efficiency, and lowering network maintenance cost.
Virtualization technologies - IRF3
IRF3 virtualizes core and access switches into one logical device.IRF3 delivers the following benefits:
Increased I/O ports and centralized maintenance and management.
Reduced network management nodes.
Simplified cable deployment.
Data plane virtualization.
Virtualization technologies - MDC
MDC virtualizes one S10500 switch into multiple logical switches, enabling multiple services to share one core switch.The 1:N virtualization maximizes switch utilization, reduces network TCO, and ensures isolation of services.
DC-oriented features
TRILL/SPB—Designed for building large flat Layer 2 networks for data centers to accommodate more servers. TRILL or SPB integrates the simplicity and flexibility of Layer 2 with the stability, scalability, and high performance of Layer 3.EVI—EVI is a MAC-in-IP technology that provides Layer 2 connectivity between distant Layer 2 network sites across an IP routed network. It is used for connecting geographically dispersed sites of a virtualized large-scale data center that requires Layer 2 adjacency.
FCOE—Integrates heterogeneous LANs and storage networks in data centers. FCOE and CEE integrate data, computing, and storage networks in data centers, reducing the costs for building and expanding data centers.
VXLAN—Uses MAC-in-UDP encapsulation method and tunnels Layer 2 network over Layer 3 network. It provides higher
scalability of Layer 2 segmentation to 16 million and better utilization of available network paths.
OAA
OAA provides an open service platform that supports multiple service cards, including firewall, IPS, Netstream, and AC cards. The integration of these cards to the switch allows for unified network security solutions.Hardware level ring protection protocol
S10500 supports hardware level RPR 2.0 (Resilient Packet Ring version 2) technology combines SDH self-healing high reliability technology and Ethernet based advantages-economy, high bandwidth, flexibility and scalability to optimize ring topology based data management bandwidth and high-performance multi-service transport solution that enables hardware and milliseconds level ultra fast convergence and reliability assurance. Compared with RPR 1.0, RPR2.0 can integrate IRF2 / MDC and other virtualization capabilities, and support for load balancing double 20G ring topology.Hardware level encryption technology MACsec
S10500 switch series supports hardware level encryption technology MACsec (802.1ae), which is an industry-standard security technology that provides secure communication for all traffic on Ethernet links. Compared with traditional application based software encryption technology, MACsec provides point-to-point security on Ethernet links between directly connected nodes and is capable of identifying and preventing most security threats.Specification
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Item |
S10504 |
S10506 |
S10508 |
S10508-V |
S10510 |
S10512 |
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Switching capacity |
17.28Tbps/ |
20.74Tbps/ |
27.65Tbps/ |
27.65Tbps/ |
34.56Tbps/ |
41.47Tbps/ |
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Forwarding capacity |
3360Mpps/ |
5040Mpps/ |
6720Mpps/ |
6720Mpps/ |
8400Mpps/ |
10080Mpps/ |
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MPU slots |
2 |
2 |
2 |
2 |
2 |
2 |
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LPU slots |
4 |
6 |
8 |
8（Vertical） |
10 |
12 |
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Switching fabric module slots |
4 |
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Redundancy |
Redundant MPUs, switching fabric modules, power modules, and fan trays |
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Ethernet |
IEEE 802.1Q DLDP LLDP Static MAC configuration Limited MAC learning Port mirroring and traffic mirroring Port aggregation, port isolation, and port mirroring IEEE 802.1D (STP)/802.1w (RSTP)/802.1s (MSTP) IEEE 802.3ad (dynamic link aggregation), static port aggregation, and multi-chassis link aggregation |
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Routing |
Static routing, RIP, OSPF, IS-IS, and BGP4 IPv4/IPv6 ECMP VRRP IPv4/IPv6 Policy-based routing IPv4/IPv6 Routing policy IPv4/IPv6 dual stack IPv6 static routing, RIPng, OSPFv3, IS-ISv6, and BGP4+ VRRPv3 Pingv6, Tenetv6, FTPv6, TFTPv6, DNSv6, and ICMPv6 IPv4-to-IPv6 transition technologies, such as IPv6 manual tunnel, 6to4 tunnel, ISATAP tunnel, GRE tunnel, and auto IPv4-compatible IPv6 tunnel |
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Multicast |
PIM-DM, PIM-SM, PIM-SSM, MSDP, MBGP, and Any-RP IGMP V1/V2/V3 and IGMP V1/V2/V3 snooping PIM6-DM, PIM6-SM, and PIM6-SSM MLD V1/V2 and MLD V1/V2 snooping Multicast policies and Multicast QoS |
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ACL/QoS |
Standard and extended ACLs Ingress and egress ACLs VLAN ACLs Global ACLs Diff-Serv QoS SP, WRR, SP+WRR Traffic shaping Congestion avoidance Priority marking and remarking 802.1p, TOS, DSCP, and EXP priority mapping H-QoS |
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SDN/ OPENFLOW |
OpenFlow 1.3 Multiple controllers (EQUAL, master/slave) Multiple tables flow Group table Meter |
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VXLAN |
VXLAN L2 switching VXLAN VTEP IS-IS+ENDP distributed control plane OpenFlow+Netconf centralized control plane |
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MPLS/VPLS |
L3 MPLS VPN L2 VPN: VLL (Martini, Kompella) MCE MPLS OAM VPLS, VLL Hierarchy VPLS, QinQ+VPLS P/PE function LDP |
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Security |
Hierarchical user management and password protection EAD Portal authentication MAC authentication IEEE 802.1x and IEEE 802.1x SERVER AAA/Radius HWTACACS SSHv1.5/SSHv2 Basic and advanced ACLs for packet filtering OSPF, RIPv2, BGPv4 pain text and MD5 authentication IP address, VLAN ID, MAC address multiple binding combination uRPF Active/standby data backup |
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System mgmt |
Loading and upgrading through XModem/FTP/TFTP SNMP v1/v2/v3 sFlow, NetStream RMON and groups 1, 2, 3 and 9 NTP clocks Fault alarm and automatic fault recovery System logs Device status monitoring mechanism, including the CPU engine, backplane, chips and other key components |
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HA |
Independent switching fabric modules 1+1 redundancy for key components such as MPUs and M+N redundancy for power modules N+1 redundancy for switching fabric modules Passive backplane Hot swapping for all components Real-time data backup on active/standby MPUs Hot patching NSR/GR for OSFP/BGP/IS-IS/RSVP Port aggregation and multi-card link aggregation BFD for VRRP/BGP/IS-IS/OSPF/RSVP/static routing, with a failover detection time less than 50 milliseconds Ethernet OAM (802.1ag and 802.3ah) RPR/RRPP DLDP VCT Smart-Link ISSU |
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Green |
EEE(802.3az) |
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Operating environment |
Temperature: 0°C to 45°C (32°F to 113°F) Humidity: 10% to 95% (non-condensing) |
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Input voltage |
100～240V AC; 50/60Hz; 16A |
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Dimension (H x W x D)/mm |
353x440x660 |
353x440x660 |
620x440x660 |
886x440x660 |
620x440x660 |
797x440x660 |
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Inquiry - H3C S10500
