HPoE is used to resolve problems, such as high deployment costs, long construction periods, unstable power supply, difficult O&M, and low safety coefficient caused by independent deployment of the power supply system required for power supply to high-power STAs. HPoE can be widely used in weak-current, new deployment and reconstruction scenarios and meet power supply requirements of high-power STAs in systems such as video surveillance, door control, information publishing, parking, and DDC.
No independent power supply system required
Two-in-one network and power cable
Shortened construction period
Reduced costs
Connection of the power supply system to the network for remote restart
Simplified Virtualization Management
On-demand service management and control
HPoE provides multiple protection mechanisms;
Overcurrent protection, preventing device damages even upon short circuits;
Up to 6KV port lightning protection, ensuring stable operation in various tough environments.
In independent deployment mode, strong-current cables are used in most cases. The voltage of power cables is higher than the safe voltage limit (36 V), and may cause accidents.
The HPoE technology complies with international power supply standards and features a low voltage and high safety, ensuring safety of O&M and working personnel.
Support for various types of ACL, port security, and IP + MAC + Port binding technologies, effectively preventing various ARP frauds
Proactive prevention against DoS and DDoS attacks
Support for the CPU Protect Policy (CPP) and Network Foundation Protection Policy (NFPP), effectively preventing attacks against standalone devices and the entire network
High-power (60 W) and long-distance (100 m) power supply is provided. Compared with the conventional centralized power supply mode:
The HPoE technology complies with international standards; adjusts line loss and lowers voltage intelligently, reducing errors caused by manual adjustment; and provides independent power supply over single ports, achieving faulty domain isolation.
To supply electricity to high-power STAs (> 30 W), an independent power supply system needs to be deployed, and the resulted grooving, pipeline layout, wire-threading, debugging, and wall and floor embellishment cause highly complex construction and a long construction period.
Only the network cable is required for power supply and data transmission via HPoE.
If an independent power supply system is deployed, materials such as the power chassis, power cables, power socket, and power adapters are required, while a construction fee will also be incurred, resulting in high overall fees.
In HPoE power supply mode, the previously mentioned materials and accessories are not required, which reduces overall fees by 30% in typical deployment scenarios.
In conventional power supply mode, the power supply system is not connected to the network. When a device is faulty, its power supply must be located for a manual restart, which can rapidly resolve most problems. However, if the power supply of the faulty device cannot be restarted due to environmental restrictions, other more complex solutions need to be adopted.
HPoE enables the power supply system to be connected to the network. Consequently, a faulty device can be remotely restarted using a PC to rectify faults rapidly and improve O&M efficiency.
The VSU technology virtualizes multiple physical devices into one logical device and uses a single IP address, Telnet process, and CLI for management.
Multiple devices are managed as one device, ensuring high management efficiency.
Scheduled power-on/off of STAs:
The STA power-on/off time can be customized based on user habits.
Uninterrupted power supply during hot start:
Power supply to STAs is not interrupted during restart of the HPoE power supply host.
Power status check at any time:
The switch is equipped with a one-click switching button. Press the button to view the status of current communication and power supply.
Model | RG-S2910-24GT4SFP-UP-H | RG-S2910-24GT4XS-UP-H | RG-S2910-10GT2SFP-UP-H |
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Ports | 24 10/100/1000BASE-T ports (PoE/PoE+), 4 Gigabit SFP ports (non-combo) uplink, Port 1-4 for HPoE, AC | 24 10/100/1000BASE-T ports (PoE/PoE+), 4 1G/10G SFP+ ports (non-combo) uplink, Port 1-4 for HPoE, AC | 10 10/100/1000BASE-T ports (8ports PoE/PoE+), 2 Gigabit SFP ports (non-combo) uplink, Port 1-8 for HPoE, AC |
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Management Port | 1 console port |
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Switching Capacity | Up to 256Gbps | Up to 256Gbps | Up to 256Gbps |
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Packet Forwarding Rate | 42Mpps/96Mpps | Up to 96Mpps | Up to 18Mpps |
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PoE | IEEE 802.3af, IEEE 802.3at and IEEE 802.3bt |
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Port Buffer | 1.5MB |
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ARP Table | 1,000 | 1,000 | 500 |
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MAC Address | 16K |
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Routing Table Size (IPv4/IPv6) | 500 (IPv4/IPv6) | 500 (IPv4/IPv6) | 64 (IPv4/IPv6) |
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ACL Entries | In: 1500 | In: 1500 | In: 750 |
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VLAN | Port-based VLAN, MAC-based VLAN, Protocol-based VLAN, Private VLAN, Voice VLAN, IP subnet-based VLAN, GVRP |
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QinQ | Basic QinQ, Flexible QinQ |
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Port Mirroring | Support aggregation port as source and destination port of mirroring; Flow-based mirroring; VLAN-based mirroring; Many-to-one mirroring; One-to-many mirroring; Cross-device traffic mirroring; RSPAN; ERSPAN | Support aggregation port as source and destination port of mirroring; Flow-based mirroring; VLAN-based mirroring; Many-to-one mirroring; One-to-many mirroring; Cross-device traffic mirroring; RSPAN; ERSPAN | Support aggregation port as source and destination port of mirroring; Flow-based mirroring; VLAN-based mirroring; Many-to-one mirroring; One-to-many mirroring; RSPAN; ERSPAN |
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Spanning Tree Protocols | IEEE802.1d STP, IEEE802.1w RSTP, standard 802.1s MSTP, Port fast, BPDU filter, BPDU guard, TC guard, TC protection, ROOT guard |
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DHCP | DHCP server, DHCP client, DHCP snooping, DHCP relay, IPv6 DHCP snooping, IPv6 DHCP client, IPv6 DHCP relay |
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Multiple Spanning Tree Protocol (MSTP) Instances | 64 |
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SDN | OpenFlow |
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VSU | VSU Stack Members | Up to 9 stack members | N/A |
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VSL | 4 BASE-X ports can be configured as VSL | N/A |
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Zero Configuration | CWMP(TR069) |
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L2 Features | MAC, VLAN, Basic QinQ, Felix QinQ, Mirroring, STP, RSTP, MSTP, Broadcast storm control, IGMP v1/v2/v3 snooping, IGMP filter, IGMP fast leave, Jumbo frame, RLDP, LLDP, REUP, G.8032 |
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Layer 2 Protocols | IEEE802.1d, IEEE802.1w, IEEE802.1s, IGMP Snooping v1/v2/v3 |
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Layer 3 Features | ARP, IPv4/v6 |
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IPv4 Features | Ping, Traceroute |
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IPv6 Features | 0-64 any length mask, ICMPv6, Neighbor Discovery, Manually configure local address, Automatically create local address, IPv6 Ping, IPv6 Tracert, IPv6 extender option head |
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Basic IPv6 Protocols | IPv6 addressing, Neighbor Discovery (ND), IPv6 ACL, ICMPv6, IPv6 Ping, IPv6 Tracert |
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IPv4 Routing Protocols | Static Routing, RIP, OSPFv1/v2 |
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IPv6 Routing Protocols | Static Routing, RIPng, OSPFv3 |
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G.8032 | Support |
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ACL | Standard IP ACL, Extended IP ACL, Extended MAC ACL, Expert ACL, ACL80, IPv6 ACL, ACL Logging, ACL Counter, ACL Remark, Global ACL, ACL Redirect |
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QoS | 802.1p/DSCP traffic classification; Multiple queue scheduling mechanisms, such as SP, WRR, DRR, SP+WRR, SP+DRR; Input / output port-based speed limit; Each port supports 8 queue priorities,Dynamic QoS | 802.1p/DSCP traffic classification; Multiple queue scheduling mechanisms, such as SP, WRR, DRR, SP+WRR, SP+DRR; Input / output port-based speed limit; Each port supports 8 queue priorities,Dynamic QoS | 802.1p/DSCP traffic classification; Multiple queue scheduling mechanisms, such as SP, WRR, DRR, SP+WRR, SP+DRR; Input port-based speed limit; Each port supports 8 queue priorities,Dynamic QoS |
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Reliability | GR for RIP | GR for RIP | GR for RIP |
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EEE Format | Support IEEE 802.3az standard |
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Security | Binding of the IPv6 and MAC address; Port-based and MAC-based 802.1x; MAB; Portal and Portal 2.0 authentication; ARP-check; DAI; Gateway anti-ARP spoofing; Hierarchical management by administrators and password protection; RADIUS and TACACS+; SSH V1.5 and SSH V2.0; IP source guard; CPP, NFPP; Port protection |
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Manageability | SNMPv1/v2c/v3, RMON(1, 2, 3, 9), SSH, Syslog / Debug, NTP / SNTP, FTP, TFTP, Web |
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Smart Temperature Control | Temperature monitoring and alert |
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Dimensions (W x D x H) (mm) | 440×260×44 | 440×260×44 | 340×260×44 |
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Rack Height | 1RU |
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MTBF | 361712 hours | 388055 hours | 408710 hours |
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Lightning Protection on Power Port | 6 Common Mode 4KV/Differential Mode 2K | Common Mode 4KV/Differential Mode 2K | Common Mode 6KV/Differential Mode 6KV |
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Lightening Protection on Communication Port | Common Mode 6KV |
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Power Supply | AC input: |
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Power Consumption | <460W | <460W | <630W |
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PoE Power Consumption | Total 370W PoE/PoE+/HPoE budget output power | Total 370W PoE/PoE+/HPoE budget output power All 24 BASE-T ports support PoE (up to 24 ports) and PoE+ (up to 12 ports) All ports from Port 1-4 support HPoE output power of up to 60W per port | Total 520W PoE/PoE+/HPoE budget output power All ports from Port 1-8 support HPoE output power of up to 60W per port |
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Temperature | Operating temperature: 0°C to 50°C |
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Storage temperature: -40°C to 70°C |
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Humidity | Operating humidity: 10% to 90%RH |
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Storage humidity: 5% to 95%RH |
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Operating Altitude | -500m to 5,000m |
The RG-S2910-H switch series features high security, efficiency and intelligence with superior energy-saving capacity. The series is suitable for the following scenarios:
● Full gigabit access to LANs of large-scale enterprises and institutions, such as government buildings, universities and large manufacturing/ energy/ metallurgy enterprises
● Full gigabit access to business systems, such as hospitals, libraries, exhibition centers and websites
● IP phones, WLAN access points and high-definition cameras access
● Full gigabit access to server clusters and 10G high-bandwidth uplink
● Secure access through flexible and diverse security control policies that can defend against network viruses and attacks
Scenario 1
The RG-S2910-H switch series switch is deployed with the RG-S5750E/P Series / the RG-S78E Series Aggregation Switches. Also teaming up the RG-N18K Series at the core, the deployment provides Gigabit Ethernet downlinks and 10 Gigabit Ethernet uplinks to meet the ever-increasing number of network nodes and demanding bandwidth requirements.
Scenario 2
The RG-S2910-H switch series switch can be deployed with RG-S78E Series/ RG-S86E Series/ RG-N18K Series to provide Gigabit Ethernet downlinks and 10 Gigabit Ethernet uplinks to the simplified core network architecture. Different combinations provide comprehensive coverage for network deployment of large, medium and small sizes. Not only does it simplify the network architecture, but also significantly enhances the stability and efficiency of the network system.
Model | Description |
RG-S2910-24GT4SFP-UP-H | 24 10/100/1000BASE-T ports (PoE/PoE+) and 4 Gigabit SFP ports (non-combo) uplink, Port 1-4 for HPoE, AC |
RG-S2910-24GT4XS-UP-H | 24 10/100/1000BASE-T ports (PoE/PoE+) and 4 1G/10G SFP+ ports (non-combo) uplink, Port 1-4 for HPoE, AC |
RG-S2910-10GT2SFP-UP-H | 10 10/100/1000BASE-T ports (HPoE/PoE/PoE+) and 2 Gigabit SFP ports (non-combo) uplink, Port 1-8 for HPoE, AC |
Optional Industrial Adapters and Accessories |
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Mini-GBIC-SX-MM850 | 1000BASE-SX mini GBIC Transceiver (850nm) |
Mini-GBIC-LX-SM1310 | 1000BASE-LX mini GBIC Transceiver (1310nm) |
Mini-GBIC-LH40-SM1310 | 1000BASE-LH mini GBIC Transceiver (1310nm, 40km) |
Mini-GBIC-ZX50-SM1550 | 1000BASE-ZX mini GBIC Transceiver (1550nm, 50km) |
Mini-GBIC-ZX80-SM1550 | 1000BASE-ZX mini GBIC Transceiver (1550nm, 80km) |
Mini-GBIC-ZX100-SM1550 | 1000BASE-ZX mini GBIC Transceiver (1550nm, 100km) |
XG-SFP-AOC1M | 10GBASE SFP+ Optical Stack Cable (included both side transceivers) for S2910 and S5750-H Series Switches, 1m |
XG-SFP-AOC3M | 10GBASE SFP+ Optical Stack Cable (included both side transceivers) for S2910 and S5750-H Series Switches, 3m |
XG-SFP-AOC5M | 10GBASE SFP+ Optical Stack Cable (included both side transceivers) for S2910 and S5750-H Series Switches, 5m |