Key Specification
| Switching capacity | 6.4 Tbps | Packet forwarding rate | 2030 Mpps |
| Module Slot | 4 x expansion module slots
2 x power module slots 3 x fan module slots |
Dimensions(W × D × H) | 442 mm x 520 mm x 86 mm (17.40 in. x 20.47 in. x 3.39 in.) |
| Operating temperature | 0°C to 40°C (32°F to 104°F) | Operating humidity | 10% RH to 90% RH (non-condensing) |
Features
Data Center 100GE Access Switch RG-S6510-4C
100GE high-density modular access switch with 10G/25G/100GE downlink ports
96 x 25GE ports and 8 x 100GE ports, 32 x 100GE ports, housed in a 2 RU enclosure for adaptation to different scenarios
Cross-device Link Aggregation, Implementing Device-level Redundancy, Flexible Networking, and High Reliability
De-stacking
De-stacking technology logically aggregates multiple switches through LACP to allow servers on the same network segment or on different network segments to communicate. This eliminates the need to synchronize data between switches, without affecting service transmission.
M-LAG
M-LAG technology implements load sharing between links and improves link reliability. The independent control plane supports independent device upgrade, realizing service upgrade within seconds and consistent user experience.
VSU
VSU technology can virtualize multiple physical devices into one logical device, simplifying network configuration and architecture, eliminating loops, and improving reliability.
VXLAN Tunneling Technology, Achieving Unlimited Data Transmission and Flexible Resource Allocation and Scheduling
VXLAN technology creates virtual tunnels on an IP network by building a virtual Layer 2 network, implementing cross-region and cross-DC data migration, and flexible resource allocation and scheduling. The switch supports EVPN VXLAN to enhance the number of tenants, meeting requirements of identification and isolation between different networks on a large scale.
PFC- and ECN-based Lossless Ethernet with High Throughput and Low Latency in RDMA Scenarios
With RDMA technology, data does not need to be handled by the CPU during device communication. This reduces the CPU burden
and effectively solves the network latency problem.
PFC+ECN, intelligent data exchange, and packet loss prevention, ensuring lossless data transmission
Telemetry-based Network Monitoring and Automated O&M,
Making Management Simple and Efficient
The switch enabled with telemetry provides clear data status and hierarchy.
The switch uses the push mode to proactively collect and push information and to provide sub-second-level network monitoring in real time, making network management more efficient and accurate.
Specifications
Hardware Specifications
| Item | RG-S6510-4C |
| Dimensions (W × D × H) |
442 mm x 520 mm x 86 mm (17.40 in. x 20.47 in. x 3.39 in.) |
| Rack height | 2 RU |
| Unit weight | 14 kg (30.86 lbs., a chassis with two power modules and three fan modules) |
| Switching capacity | 6.4 Tbps |
| Packet forwarding rate | 2030 Mpps |
| Management port | 1 x RJ45 console port
1 x RJ45 MGMT port |
| USB port | 1 x USB 2.0 port (Type A connector) |
| Module Slot | 4 x expansion module slots
2 x power module slots 3 x fan module slots |
| Power consumption | Maximum power consumption: 600 W
Typical power consumption: 455 W Static power consumption: 202 W |
| Power input | RG-PA800I-F (AC input):
Rated input voltage: 100 V AC to 127 V AC, 200 V AC to 240 V AC, 50 Hz/60 Hz Maximum input voltage: 90 V AC to 140 V AC, 180 V AC to 264 V AC, 47 Hz to 63 Hz Rated input current: 10 A to 5 A (100 V AC to 240 V AC) Power port type: C14
RG-PA800I-F (HVDC input): Rated input voltage: 240 V DC Maximum input voltage: 180 V DC to 310 V DC Rated input current: 5 A Power port type: C14
RG-PD800I-F (DC input): Rated input voltage: –48 V DC Maximum input voltage: –36 V DC to –72 V DC Rated input current: 23 A Power port: three-pin power connector |
| 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) Note: At altitudes ranging from 2000 m (6561.68 ft.) to 5000 m (16,404.20 ft.), the maximum temperature decreases by 1°C (1.8°F) for every 200 m (656.17 ft.) increase in elevation. |
| Humidity | Operating humidity: 10% RH to 90% RH (non-condensing)
Storage humidity: 5% RH to 95% RH (non-condensing) |
| Altitude | Operating altitude: ≤ 5,000 m (16,404.20 ft.)
Storage altitude: ≤ 5000 m (16,404.20 ft.) |
| Cooling | Air cooling, front-to-rear airflow (port-side intake) |
Software Specifications
| Item | RG-S6510-4C |
| Layer 2 Protocols | IEEE802.3ad (Link Aggregation Control Protocol), IEEE802.1p, IEEE802.1Q, IEEE802.1D (STP), IEEE802.1w (RSTP), IEEE802.1s (MSTP), IGMP Snooping, MLD Snooping, Jumbo Frame (9 KB), IEEE802.1ad (QinQ and selective QinQ), GVRP |
| Layer 3 Protocols (IPv4) | BGP4, OSPFv2, RIPv1, RIPv2, MBGP, LPM Routing, Policy-based Routing (PBR), Route-policy, Equal-Cost Multi-Path Routing (ECMP), WCMP, VRRP, IGMP v1/v2/v3, PIM-SSM/SM/DM, MSDP, Any-RP |
| IPv6 Basic Protocols | Neighbor Discovery, ICMPv6, Path MTU Discovery, DNSv6, DHCPv6, ICMPv6, ICMPv6 redirection, ACLv6, TCP/UDP for IPv6, SNMP v6, Ping/Traceroute v6, IPv6 RADIUS, Telnet/SSH v6, FTP/TFTP v6, NTP v6, IPv6 MIB support for SNMP, VRRP for IPv6, IPv6 QoS |
| IPv6 Features | Static routing, ECMP, PBR, OSPFv3, RIPng, BGP4+, MLDv1/v2, PIM-SMv6, manual tunnel, automatic tunnel, IPv4 over IPv6 tunnel, and ISATAP tunnel |
| Data Center Features | VXLAN routing and VXLAN bridging
EVPN VXLAN IPv6 VXLAN over IPv4 PFC, ECN, and other data center features RDMA M-LAG OpenFlow 1.3 |
| Visualization | gRPC
sFLOW sampling INT |
| QoS | Mapping of IEEE 802.1p, DSCP, and ToS priorities ACL-based traffic classification Priority marking/remarking Multiple queue scheduling mechanisms, including SP, WRR, DRR, SP+WRR, and SP+DRR Congestion avoidance mechanisms such as WRED and tail discarding |
| Virtualization | Virtual Switching Unit |
| Buffer Management | Buffer status monitoring and management, and identification of burst traffic |
| HA Design | GR for RIP/OSPF/BGP, BFD, REUP dual-link fast switching and RLDP unidirectional link detection, 1+1 power redundancy, and fan redundancy, and hot swapping for all line cards and power supply modules |
| Security Features | Network Foundation Protection Policy (NFPP), CPP, DDoS attack defense, illegitimate data packet detection, data encryption, source IP spoofing prevention, IP scanning prevention, RADIUS/TACACS, IPv4/v6 packet filtering by basic ACL, extended ACL or VLAN-based ACL, plaintext-based and MD5 ciphertext-based authentication for OSPF, RIPv2, and BGPv4 packets, telnet login and password mechanisms for restricted IP addresses, uRPF, broadcast packet suppression, DHCP Snooping, gateway ARP spoofing prevention, and ARP check |
| Management Mode | SNMP v1/v2c/v3, Netconf, telnet, console, MGMT, RMON, SSHv1/v2, FTP/TFTP, NTP clock, Syslog, SPAN/RSPAN, Telemetry, ZTP, Python, fan and power supply alarm, and temperature alarm |
| Other Protocols | DHCP Client, DHCP Relay, DHCP Server, DNS Client, UDP relay, ARP Proxy, and Syslog |
Order Information
Chassis, Fan, and Power Modules
| Product Model | Description |
| RG-S6510-4C | Four expansion module slots, supporting hot swapping. Two power supply module slots and three fan module slots The power supply model is RG-PA800I-F, and the fan model is M6500-FAN-F. |
| RG-PA800I-F | Power module, supporting 1+1 redundancy, hot swapping, front-to-rear ventilation design, AC and HVDC |
| RG-PD800I-F | Power module, supporting 1+1 redundancy, hot swapping, front-to-rear airflow design, and LVDC |
| M6500-FAN-F | Fan module, supporting 2+1 redundancy, hot swapping, and front-to-rear ventilation design |
Expansion Modules
| Product Model | Description |
| M6500-08CQ | 8 x QSFP28 ports
The QSFP28 port supports a speed of 40 Gbps/100 Gbps. |
| M6500-24VS2CQ | 24 25GE SFP28 ports and two QSFP28 ports
SFP28 supports a speed of 10G/25G rates. The QSFP28 port supports a speed of 40 Gbps/100 Gbps. One QSFP port can be split into four 10GE or 25GE ports. |
25GE Optical Transceivers
| Model | Description |
| VG-SFP-SR-SM850 | 25G SR optical transceiver, SFP28 form factor, LC, 850 nm, 100 m (328.08 ft.) over multimode fiber (MMF) |
| VG-SFP-LR-SM1310 | 25G LR optical transceiver, SFP28 form factor LC, 1310 nm, 10 km (32,808.40 ft.) over single-mode fiber (SMF) |
| VG-SFP-AOC5M | 25G active optical cable (AOC), SFP28 form factor, 5 m (16.40 ft.) |
40G Optical Transceivers
| Model | Description |
| 40G-QSFP-SR-MM850 | 40G SR optical transceiver, QSFP+ form factor, MPO, 150 m (492.13 ft.) over MMF |
| 40G-QSFP-LR4-SM1310 | 40G LR4 optical transceiver, QSFP+, Duplex LC, 10 km (32,808.40 ft.) over SMF |
| 40G-QSFP-LSR-MM850 | 40G SR optical transceiver, QSFP+ form factor, MPO, 400 m (1,312.34 ft.) over MMF |
| 40G-QSFP-iLR4-SM1310 | 40G iLR4 optical transceiver, QSFP+, Duplex LC, 2 km (6,561.68 ft.) over SMF |
| 40G-QSFP-LX4-SM1310 | 40G LX4 optical transceiver, QSFP+, Duplex LC, 150 m (492.13 ft.) over OM3/OM4 MMF, 2 km (6,561.68 ft.) over SMF |
| 40G-AOC-30M | 40G QSFP+ AOC, 30 m (98.43 ft.) |
| 40G-AOC-5M | 40G QSFP+ AOC, 5 m (16.40 ft.) |
100G Optical Transceivers
| Model | Description |
| 100G-QSFP-SR-MM850 | 100G SR optical transceiver, QSFP28 form factor, MPO, 850 nm, 100 m (328.08 ft.) over MMF |
| 100G-QSFP-LR4-SM1310 | 100G LR4 optical transceiver, QSFP28 form factor, Duplex LC, 1310 nm, 10 km (32,808.40 ft.) over SMF |
| 100G-QSFP-iLR4-SM1310 | 100G iLR4 optical transceiver, QSFP28 form factor, Duplex LC, 1310 nm, 2 km (6,561.68 ft.) over SMF |
| 100G-QSFP-ER4-SM1310 | 100GE ER4 optical transceiver, QSFP28 form factor, Duplex LC, 1310 nm, 40 km (131,233.60 ft.) over SMF |
| 100G-AOC-5M | 100G AOC), QSFP28 form factor, 5 m (16.40 ft.) |
| 100G-AOC-10M | 100G AOC), QSFP28 form factor, 10 m (32.81 ft.) |
GE Optical Transceivers
| Model | Description |
| GE-SFP-LH40-SM1310-BIDI | 1G LH optical transceiver, SFP form factor, BIDI LC, 40 km (131,233.60 ft.) over SMF |
| GE-SFP-LX20-SM1310-BIDI | 1G LX optical transceiver, SFP form factor, BIDI LC, 20 km (65,616.80 ft.) over SMF |
| GE-SFP-LX20-SM1550-BIDI | 1G LX optical transceiver, SFP form factor, BIDI LC, 20 km (65,616.80 ft.) over SMF |
| MINI-GBIC-LH40-SM1310 | 1G LH optical transceiver, SFP form factor, Duplex LC, 40 km (131,233.60 ft.) over SMF |
| MINI-GBIC-LX-SM1310 | 1G LX optical transceiver, SFP form factor, Duplex LC, 10 km (32,808.40 ft.) over SMF |
| MINI-GBIC-SX-MM850 | 1G SR optical transceiver, SFP form factor, Duplex LC, 550 m (1,804.46 ft.) over MMF |
| MINI-GBIC-ZX80-SM1550 | 1G ZX optical transceiver, SFP form factor, Duplex LC, 80 km (262,467.19 ft.) over SMF |
GE Copper Transceivers
| Model | Description |
| Mini-GBIC-GT(F) | 1G copper transceiver, SFP form factor, RJ45, 100 m (328.08 ft.) over Cat 5e/6/6a |
10GE Optical Transceivers
| Model | Description |
| XG-LR-SM1310 | 10G LR optical transceiver, SFP + form factor, Duplex LC, 10 km (32,808.40 ft.) over SMF |
| XG-SFP-ER-SM1550 | 10G ER optical transceiver, SFP + form factor, Duplex LC, 40 km (131,233.60 ft.) over SMF |
| XG-SFP-LR-SM1310 | 10G LR optical transceiver, SFP + form factor, Duplex LC, 10 km (32,808.40 ft.) over SMF |
| XG-SFP-SR-MM850 | 10G SR optical transceiver, SFP + form factor, Duplex LC, 300 m (984.25 ft.) over MMF |
| XG-SFP-ZR-SM1550 | 10G ZR optical transceiver, SFP + form factor, Duplex LC, 80 km (262,467.19 ft.) over SMF |
| XG-SR-MM850 | 10G SR optical transceiver, SFP + form factor, Duplex LC, 300 m (984.25 ft.) over MMF |
| XG-SFP-AOC1M | 10G AOC, SFP+ form factor, 1 m (3.28 ft.) |
| XG-SFP-AOC3M | 10G AOC, SFP+ form factor, 3 m (9.84 ft.) |
| XG-SFP-AOC5M | 10G AOC, SFP+ form factor, 5 m (16.40 ft.) |