Table of Contents. 4 Typical Applications 4-1 Core Switches on Enterprise Networks 4-1

Transcription

1 Table of Contents 1 Product Overview 1-1 Overview 1-1 General Architecture 1-1 Chassis and Slots 1-1 Backplane 1-7 Power Supply System 1-7 Fan Tray 1-8 MPU 1-10 LPUs 1-12 Front Panel and LEDs Features 2-1 Overview 2-1 Advanced System Architecture 2-1 Intelligent Resilient Framework 2 (IRF2) 2-1 High-Performance QoS 2-1 Diversified Service Features and Good Scalability 2-2 High Availability 2-2 All-Round Security Mechanism 2-2 Superior Ease of Use 2-3 Environment-Friendly Design Technical Specifications 3-1 S9500E System Configuration 3-1 S9500E Interface Specifications 3-2 Console Port 3-2 Network Management Interface 3-3 AUX Port 3-3 USB Interfaces 3-3 CF Card Slot GE XFP Optical Interface GE SFP+ Optical Interface 3-5 GE SFP Interface /100/1000 Mbps Electrical Interface 3-6 Combo Port 3-7 S9500E Software Feature List Typical Applications 4-1 Core Switches on Enterprise Networks Ordering Guide 5-1 Ordering an S9500E Routing Switch 5-1 Purchasing MPUs 5-2 Purchasing LPUs 5-2 i

2 ii

3 1 Product Overview Overview The H3C S9500E series routing switches (hereinafter referred to as the S9500E series) are new-generation core routing switches developed by Hangzhou H3C Technologies Co., Ltd. (hereinafter referred to as H3C) based on its 100 G platform. The S9500E series are mainly deployed at the core layer of large-scale industry networks and campus networks. They can implement the following functions: Supporting ultra-high port density, and providing multiple interface types, such as 10 GE XFP optical interface, GE SFP optical interface, and 10/100/1000 Mbps electrical interface Supporting value-added security services, such as firewall, IPSec, distributed denial of service (DDoS) and load balancing (LB), to meet the requirements of intelligent IP networks. Supporting redundancy backup of power supply units (PSUs) and main processing units (MPU) to meet the requirements of multi-service, high-reliability and great-capacity for high-end users. The S9500E series include these models: S9505E The S9505E provides five line processing unit (LPU) slots and two MPUs, horizontal S9508E-V The S9508E-V provides eight LPU slots and two MPU slots, vertical S9512E The S9512E provides twelve LPU slots and two MPU slots, horizontal In this manual, hardware configurations of the S9505E, S9508E-V and S9512E are the same unless otherwise specified. General Architecture The S9500E series use an integrated chassis, which consists of a backplane section, PSU section, fan section, and board section. Chassis and Slots 1-1

4 Your devices might look different from the diagrams in the manual. When lifting the chassis, use the chassis handles. Neither the rear cover handles nor the fan tray handles are used to support the weight of the device. S9505E appearance and description Figure 1-1 S9505E front view (1) MPU slots (slots 0 and 1) (2) LPU slots (slots 2 through 6) (4) PSUs (5) ESD-preventive wrist strap port (3) PoE power entry module (reserved) 1-2

5 Figure 1-2 S9505E rear view (1) Fan tray and handle (2) Rear cover handle (3) Grounding screw An MPU and an LPU cannot be intermixed. At the bottom of the chassis is the PSU section. The PSU section contains PSUs that provide respectively AC input and DC input. Redundant backup is supported. A vertical hot-swappable fan tray is installed on the chassis. The fans draw air in from the left side and exhaust air from the right side. 1-3

6 S9508E-V appearance and description Figure 1-3 Front view of the S9508E-V (1) Fan tray (2) MPU slots (slots 4 and 5) (3) LPU slots (slots 0 to 3, 6 to 9) (4) Air inlet (5) PSUs (6) PoE power entry module (reserved) (7) ESD-preventive wrist strap port 1-4

7 Figure 1-4 S9508E-V rear view (1) Rear cover handles (2) Grounding screw An MPU and an LPU cannot be intermixed. At the bottom of the chassis is the PSU section. The PSU section contains PSUs that provide respectively AC input and DC input. Redundant backup is supported. A horizontal hot-swappable fan tray is installed on the upper side of the chassis. The fans draw air in from the front and exhaust air from the behind. 1-5

8 S9512E appearance and description Figure 1-5 Front view of the S9512E (1) LPU slots (slots 0 to 5, 8 to 13) (2) PoE power entry module (reserved) (3) PSUs (4) MPU slots (slots 6 and 7) (5) ESD-preventive strap port 1-6

9 Figure 1-6 S9512E rear view (1) Fan trays and handles (2) Rear cover handles (3) Grounding screw An MPU and an LPU cannot be intermixed. At the bottom of the chassis is the PSU section. The PSU section contains PSUs that provide respectively AC input and DC input. Redundant backup is supported. Two vertical hot-swappable fan trays are installed on the chassis. The fans draw air in from the left and exhaust air from the right. Backplane The backplane of an S9500E switch is located in the integrated chassis. It implements high-speed data interconnections, system management and control signal exchange. The backplane mainly implements these functions: Providing communication channels for signal exchange between boards. Supporting hot-swapping of boards and PSUs. Auto-detecting types of boards in slots. Connecting with PSUs to provide distributed power supply for MPUs, LPUs, fan trays, and PSUs, and to provide monitoring channels. Power Supply System The S9500E series switches support both AC and DC power supply. You can select either AC or DC PSUs as needed. However, PSUs of different types cannot operate on the same S9500 series switch. You are recommended to configure redundancy backup of PSUs. 1-7

10 AC PSU An AC PSU consists of one AC PSU (NEPS3500-A) and one or two 1800 W AC sub-psus. You can install one or two AC sub-psus on the NEPS3500-A based on the actual power requirements. Table 1-1 AC PSU specifications Item Rated input voltage range Max. input voltage range Max. input current Max. output power Description (NEPS1800-A) 100 VAC to 120 VAC; 60 Hz 200 VAC to 240 VAC; 50 Hz 90 VAC to 264 VAC; 50 Hz or 60 Hz 16 A 1800 W With two NEPS1800-A sub-psus installed on the NEPS3500-A AC PSU, the maximum output power of the NEPS3500-A is 3500 W. DC PSU Table 1-2 DC PSU specifications Item Description NEPS1200-D NEPS2000-D NEPS3500-D Rated input voltage range 48 VDC to 60 VDC 48 VDC to 60 VDC 48 VDC to 60 VDC Max. input voltage range 40 VDC to 72 VDC 40 VDC to 72 VDC 40 VDC to 72 VDC Max. input current 42 A 60 A 92 A Max. output power 1200 W 2000 W 3500 W At present, PoE power entry modules are not supported. Fan Tray The fan trays of the S9500E series provide the following functions: Effective heat dissipation: Ensures normal operation of the device for a long time. Status monitoring: Fan rotation speed monitoring, fault alarms, and so on. 1-8

11 Automatic speed adjustment: Supports to adjust the fan rotation speed automatically according to the operation situation of the device, reducing noises and energy consumption effectively. Information indication: Two LEDs on the front panel of a fan tray provide the fan tray operating information. A fan tray on the S9505E and the S9512E consists of 4 fan units. Fan trays are hot-swappable with a maximum power of 40 W. A fan tray on the S9505E-V consists of 6 fan units. Fan trays are hot-swappable with a maximum power of 60 W. The S9505E and S9512E use the same type of fan trays, and intermixing of fan trays are supported; the S9508E-V uses different fan trays from those of the S9505E and S9512E, and does not support the intermixing of different fan trays. Figure 1-7 Fan trays (1) RUN LEDs (2) ALM LEDs Table 1-3 Description of fan LEDs LED Color Status Description RUN Green Off On The fan tray fails. The fan tray is operating normally. ALM Red Off On The fan tray is in a normal state. The fan tray is faulty. 1-9

12 MPU Specifications As the core of an S9500E switch, an MPU implements the following functions: Calculating routes and maintaining forwarding tables; providing data exchange between LPUs. Providing system configuration and monitoring functions to monitor other boards, and upgrade and reset board software. Supporting fast fault detection and restoration function (support of the MPC8544 CPU is needed; only supported by C-type MPUs). Active/standby switchover is supported if two MPUs are installed. Table 1-4 MPU specifications Item Model LSR1SRP2B1 LSR1SRP2C1 LSR1SRP2B2 LSR1SRP2C2 CPU MPC8548 MPC8548+MP C8544 MPC8548 MPC8548+MP C8544 Flash 128 MB Boot ROM 4 MB NVRAM 1 MB SDRAM (DDR2) CF card Dimensions (the filler panel included) (H W D) 1 GB (expandable to 2 GB) 256 MB (expandable to 1 GB) mm ( in.) Power consumption 79 W to 95 W 88 W to 105 W 52 W to 65 W 62 W to 75 W Chassis Interface type S9508E-V/S95 12E S9508E-V/S95 12E S9505E S9505E One console port One AUX port One network management port One CF card slot Two USB interfaces For detailed interface specifications, see S9500E Interface Specifications. The models of the active MPU and the standby MPU must be the same; otherwise, the standby MPU cannot boot normally. To use USB disks on an MPU, you are recommended to use the USB disks provided by H3C (optional when you purchase an MPU). MPC8544 is a Fast Fault Detection and Restoration (FFDR) CPU. 1-10

13 LSR1SRP2B1/LSR1SRP2C1 Figure 1-8 LSR1SRP2C1 front panel (1) SMB coaxial clock interfaces (reserved, not supported at present) (2) LPU LED (3) MPU LED (4) Reset button (5) Active (HOST) USB interface (6) Standby (DEV) USB interface and the LED (7) AUX port (8) Console port (9) RS232/485 interface (10) Network management port (11) CF card and LED The LSR1SRP2B1 does not have SMB coaxial clock interfaces. The type and appearance of other interfaces are similar to those of the LSR1SRP2C1. LSR1SRP2B2/LSR1SRP2C2 Figure 1-9 LSR1SRP2C2 front panel (1) SMB coaxial clock interfaces (reserved, not supported at present) (2) LPU LED (3) MPU LED (4) Reset button (5) Active (HOST) USB interface (6) Standby (DEV) USB interface and the LED (7) AUX port (8) Console port (9) RS232/485 interface (reserved, not supported at present) (10) Network management port (11) CF card and LED 1-11

14 The LSR1SRP2B2 does not have SMB coaxial clock interfaces. The type and appearance of other interfaces on the LSR1SRP2B2 are similar to those on the LSR1SRP2C2. LEDs Table 1-5 Description of the CF card LED LED Status Description CFS On Blinking Off The CF card is in position and idle. Do not hot-unplug it now. The CF card is in position and performing read/write operations. Do not unplug it now. The CF card is out of position or offline. You can plug in or unplug the CF card now. Table 1-6 Description of MPU LEDs MPU LED Status Description SFC (green) ACT (green) RUN (green) ALM (red) On Off On Off Blinking On Off On Off The switch fabric is in the working state. The switch fabric is in the standby state. The board is in active state. The board is in standby state. The MPU is working normally. The MPU is faulty. The MPU is faulty. An alarm occurs. No alarm occurs. LPUs Specifications Table 1-7 LPUs specifications Item Description CPU Boot ROM SDRAM MPC MB 512 MB 1-12

15 Item Dimensions (the filler panel included) (H W D) Chassis Description mm ( in.) S9505E/S9508E-V/S9512E Table 1-8 Interface type and power consumption of each LPU LPU model Interface type and number Power consumption LSR1GT24LEC1/LSR2GT 24LEB1 LSR1GT48LEC1/LSR2GT 48LEB1 LSR1GP24LEC1/LSR2G P24LEB1 LSR1GP48LEB1/LSR1GP 48LEC1 LSR2GV48REB1 LSR1XP2LEB1/LSR1XP2 LEC1 LSR1XP4LEB1/LSR1XP4 LEC1 LSR1XP16REB1 Sixteen 10/100/1000 Mbps autosensing RJ-45 electrical interfaces and eight Combo interfaces Forty-eight 10/100/1000 Mbps autosensing RJ-45 electrical interfaces Sixteen 1000 Mbps SFP/LC optical interfaces and eight Combo interfaces Forty-eight 1000 Mbps SFP/LC optical interfaces Forty-eight 10/100/1000 Mbps autosensing RJ-45 electrical interfaces (high-port-density LPU) Two 10-GE XFP optical interfaces Four 10-GE XFP optical interfaces Sixteen 10-GE SFP+ optical interfaces (high-port-density LPU) 44 W to 85 W/40 W to 72 W 68 W to 125 W/54 W to 115 W 43 W to 75 W/33 W to 70 W 43 W to 100 W/63 W to 115 W 52 W to 95 W 36 W to 50 W/46 W to 60 W 72 W to 75 W/78 W to 95 W 88 W to 110 W For detailed interface type descriptions, see section S9500E Interface Specifications. 1-13

16 Front Panel and LEDs LSR1GT24LEC1/LSR2GT24LEB1 Figure 1-10 LSR1GT24LEC1 front panel (1) 10/100/1000 Mbps autosensing RJ-45 electrical interfaces and LEDs (16 in total) (2) Combo interfaces (8 in total) (3) Combo interface LEDs The appearance of the LSR2GT24LEB1 is similar to that of the LSR1GT24LEC1. The autosensing RJ-45 electrical interfaces are numbered from 1 to 16. Refer to Table 1-9 for the interface LEDs description. Table 1-9 Description of interface LEDs LED Status Description LINK/ACT Off On Blinking No link is present. A link is present. The interface is receiving or sending data. The electrical Combo interfaces are numbered from 17 to 24, and the optical Combo interfaces are numbered from 25 to 32. See Table 1-10 for the interface LEDs description of the Combo interfaces. Table 1-10 Description of the Combo interface LEDs LED Status Description LINK/ACT On (yellow) On (green) Off (green) Blinking (green) Indicates the working mode of the interface (electrical or optical). The interface is connected. The interface is not connected. Data is being received and transmitted on the interface. 1-14

17 LSR1GT48LEC1/LSR2GT48LEB1 Figure 1-11 LSR1GT48LEC1 front panel (1) 10/100/1000 Mbps autosensing RJ-45 electrical interfaces and LEDs (48 in total) (2) Interface LEDs The appearance of the LSR2GT48LEB1 is similar to that of the LSR1GT48LEC1. Refer to Table 1-9 for the interface LEDs description. LSR1GP24LEC1/LSR2GP24LEB1 Figure 1-12 LSR1GP24LEC1 front panel (1) 1000 Mbps SFP/LC optical interfaces and LEDs (16 in total) (2) Combo interfaces (8 in total) (3) Combo interface LEDs The appearance of the LSR2GP24LEB1 is similar to that of the LSR1GP24LEC1. The GE optical interfaces are numbered from 1 to 16. See Table 1-9 for the interface LEDs description; the electrical Combo interfaces are numbered from 17 to 24, and the optical Combo interfaces are numbered from 25 to 32. See Table 1-10 for the interface LEDs description of the Combo interfaces. 1-15

18 LSR1GP48LEB1/LSR1GP48LEC1 Figure 1-13 LSR1GP48LEB1 front panel (1) GE SFP/LC optical interfaces (48 in total) (2) Interface LED The appearance of the LSR1GP48LEC1 is similar to that of the LSR1GP48LEB1. The GE optical interfaces are numbered from 1 to 48. See Table 1-9 for the interface LEDs description. For the types and attributes of the optional SFP modules, refer to Table 3-9. LSR2GV48REB1 Figure 1-14 LSR2GV48REB1 front panel (1) 10/100/1000 Mbps autosensing RJ-45 electrical interfaces (48 in total) (2) Interface LED Refer to Table 1-9 for the interface LEDs description. 1-16

19 LSR1XP2LEB1/LSR1XP2LEC1 Figure 1-15 LSR1XP2LEC1 front panel (1) 10-GE XFP optical interfaces (two in total) (2) Interface LED The appearance of the LSR1XP2LEB1 is similar to that of the LSR1XP2LEC1. The 10-GE optical interfaces are numbered 1 and 2. See Table 1-11 for the interface LEDs description. Table 1-11 Description of interface LEDs LED Color Status Description LINK Green Off On No link is present. A link is present. ACT Orange Off On No data is being transmitted or received through the interface. The interface is receiving or sending data. For the models and attributes of the optional XFP modules, refer to Table 3-7. LSR1XP4LEB1/LSR1XP4LEC1 Figure 1-16 LSR1XP4LEC1 front panel (1) 10-GE XFP optical interfaces (four in total) (2) Interface LED 1-17

20 The appearance of the LSR1XP4LEB1 is similar to that of the LSR1XP4LEC1. See Table 1-11 for the interface LEDs description. See Table 3-7 for the types and attributes of the optional XFP modules. LSR1XP16REB1 Figure 1-17 LSR1XP16REB1 front panel (1): 10GBase-R SFP+/LC optical interfaces (16 in total) (2) Interface LED Table 1-12 Description of interface LEDs LED Status Description LINK/ACT On Off Blinking A link is present. No link is present. Data is being received and transmitted on the interface. See Table 3-8 for the types and attributes of the optional SFP+ modules. 1-18

21 2 Features Overview The main features of the S9500E series are as follows: Advanced System Architecture Intelligent Resilient Framework 2 (IRF2) High-Performance QoS Diversified Service Features and Good Scalability High Availability All-Round Security Mechanism Superior Ease of Use Environment-Friendly Design Advanced System Architecture Industry-leading switching architecture to provide higher performance and better scalability, fully meeting the requirements of data centers and future development. Super-large switching capacity: For the switching capacity that a single device can provide, see Table 3-1. Ultra-high port density: One device supports 576 GE or 48 10GE ports to meet the high-density application requirements of data centers. Intelligent Resilient Framework 2 (IRF2) Providing an advanced virtualization technology that allows multiple switches to be interconnected to form one logical switching entity, thus reducing the maintenance cost. Supporting inter-frame resilient interconnection of common ports and inter-frame link aggregation. IRF2 supports the resilient interconnection of up to twelve 10-GE ports located in different frames, providing bandwidth of up to 120 Gbps. In addition to expanding the available ports and switching capacity, IRF2 also enhances the reliability of the devices, reducing the impact of single device failures on the network. High-Performance QoS Supporting a committed access rate (CAR) with the maximum granularity of 1 kbps. Support for Diff-Serv model in QoS. Supporting match criteria based on source port, source VLAN ID, source MAC address, packet type, TCP/UDP port number, and IP address prefix. Providing multi-criteria-based enqueuing, traffic classification, CAR, congestion control (WRED and Tail-Drop), queue scheduling (WRR, SP), and traffic shaping per queue, completely classifying services and ensuring bandwidth, delay and jitter; providing service guarantee with different 2-1

22 service quality for users, making the IP networks an integrated network carrying data, voice and video services. Diversified Service Features and Good Scalability Supporting distributed MPLS VPNs to provide high-quality, secure, multi-level MPLS VPN solutions. Supporting high-performance multicasting and multicast VPN services. Supporting distributed IPv6 services to meet the network service developments. Supporting URPF for preventing source address spoofing attacks. Providing standard application interfaces based on the Open Application Architecture (OAA) to integrate value-added security services, such as firewall, IPSec, DDoS, NetStream and LB. High Availability Fully-distributed switching architecture and software architecture: Basis for high performance, high scalability, and high availability. 1+1 redundancy for control plane enhance the system's fault isolation ability and reliability. Control plane has three CPU systems: MPU CPU system, Fast Fault Discovery and Restore (FFDR) CPU system, and Embedded Maintenance Subsystem (EMS). The FFDR CPU system is dedicated to quickly detecting BFD, OAM, and other faults and cooperates with the protocols at the control plane to support fast protection switchover and fast convergence. The EMS CPU system supports power management and provides an emergency channel. L2 reliability: Ethernet port bundling, DLDP, Smart Link, and RRPP. L3 reliability: NSF/GR for uninterrupted forwarding, ECMP, fast convergence of dynamic routes, and BFD. Service reliability: TE FRR/IP FRR. Supports online patching. 1+1 redundant power supply units (PSUs) All-Round Security Mechanism Support for bit-based masks to perform accurate secure access control for L2/IPv4/IPv6/MPLS packets and their field combinations; PCL rule flexibility: Ingress PCL, Egress PCL, VLAN PCL, Port PCL, and global PCL; PCL action flexibility: Permit, Deny, redirecting to Next Hop/CPU/Port/ Trunk/Tunnel, mirroring to CPU/Port/Trunk/VLAN, Mark/Remark DSCP/EXP/UP/TC/DP, and traffic accounting and policing. Hierarchical user management and password protection, with different level users having different configuration authorities. The user authentication modes involve SSH, Radius/TACACS+, and Syslog. Multi-level protection and security of forwarding plane: port security control, bridge security control, route security control, and application layer security control. Large-capacity bidirectional ACL, URPF, address binding, and port isolation. Multiple attack prevention mechanisms: ARP depth detection, IP attack detection, TCP attack detection, IP Source Guard, and so on. 2-2

23 Superior Ease of Use Automatically detects, reports, and isolates hardware faults. Environment and hot spot temperature monitoring, automatic adjustment of fan speed. Saves key information before the CPU system reboots due to a fault for subsequent fault analysis and location. Supports board offline fault diagnosis to quickly and conveniently locate site faults. Network Quality Analyzer (NQA): Supports service-level online fault diagnosis, analyzes network or service quality by using different detection methods, such as TCP, UDP-Jitter, ICMP, HTTP, FTP, DHCP, DLSw, and SNMP, and generates detection results. Visual network traffic monitoring and analysis: Sampled Flow (sflow) is a network traffic monitoring technology based on packet sampling. sflow mainly analyzes network traffic and supports accurate network traffic monitoring over Gigabit or higher-speed networks. Supports 802.3ah OAM and provides multiple device-level and network-level fault detection methods. Environment-Friendly Design Developed power management functions allow powering off idle boards to reduce power consumption. Temperature monitoring and automatic fan speed adjustment effectively reduce noises and extends fan service periods. 2-3

24 3 Technical Specifications S9500E System Configuration Table 3-1 S9500E system configuration Item S9505E S9508E-V S9512E System switching capacity 720 Gbps/1.92 Tbps* 1.44 Tbps/3.84 Tbps* 1.44 Tbps/3.84 Tbps* Port capacity 240 Gbps 384 Gbps 576 Gbps Packet forwarding rate Number of LPU slots Number of MPU slots Max. number of 10 GE ports Max. number of GE ports 360 Mpps 576 Mpps 864 Mpps MPU redundancy Fan tray Dimensions (H W D) mm ( in.) mm ( in.) mm ( in.) MPU model LSR1SRP2B2/LSR1 SRP2C2 LSR1SRP2B1/LSR1SRP2C1 Weight Net weight: 40 kg (88.18 lb.) Full configuration: 70 kg ( lb.) Net weight: 58 kg ( lb.) Full configuration: 100 kg ( lb.) Net weight: 60 kg ( lb.) Full configuration: 110 kg ( lb.) MTBF (years) Operating temperature Relative humidity (noncondensing) Storage temperature Operating altitude 0 C to 45 C (32 F to 113 F) (long-term) 10 C to 55 C (14 F to 131 F) (no more than 96 hours of continuous operation and less than 15 days in one year) 5% to 90% 40 C to +70 C ( 40 F to 158 F) 3000 m ( ft.) 3-1

25 Values followed by an asterisk (*) are to be supported in a later release. S9500E Interface Specifications The S9500E series support the following interface types: Console Port Network Management Interface AUX Port USB Interfaces CF Card Slot 10-GE XFP Optical Interface 10-GE SFP+ Optical Interface GE SFP Interface 10/100/1000 Mbps Electrical Interface Combo Port Console Port The console port adopts an RJ-45 connector and can be connected to a computer for system debugging, configuration, maintenance, management, and host software loading. Figure 3-1 RJ-45 connector diagram Table 3-2 Console port specifications Item Specification Connector Interface standard Baud rate Supported services RJ-45 Asynchronous EIA/TIA bps to bps (9600 bps by default) It can be connected to the serial interface of a local PC running terminal emulation software, or to an ASCII terminal. Command line interface (CLI) is supported. 3-2

26 Network Management Interface The 10/100/1000BASE-T autosensing RJ-45 network management interface allows you to perform software upgrade and device management through an NMS, without occupying any service port slot. Table 3-3 Network management interface specifications Item Specification Connector RJ-45 Number of interfaces 1 Interface speed Transmission medium and maximum transmission distance Supported services 10/100/1000 Mbps, autosensing Crossover, category-5 twisted pair cable or higher, with a maximum transmission distance of 100 m (328.1 ft.) Device software upgrade and network management AUX Port The AUX port adopts an RJ-45 connector. As the backup port for the console port, the AUX port can be connected to a terminal or through a pair of Modems to a remote device for remote debugging, configuration, maintenance, and management. Table 3-4 AUX port specifications Item Specification Connector type Interface standard Baud rate Supported services RJ-45 Asynchronous EIA/TIA bps to bps (9600 bps by default) It can be connected to the serial port of a remote PC through dialup connection (using a pair of modems at the two ends). USB Interfaces Table 3-5 USB interface specifications Item Connector type Interface standard Supported service Specification USB A type connector for the HOST USB interface (Active) USB B type connector for the DEV USB interface (Standby) At present, only the HOST USB interface is supported. USB 2.0 (full-speed 12 Mbps) External storage media is supported. 3-3

27 CF Card Slot Compact flash (CF) cards are advanced portable storage products. They have fast-speed, large-capacity, small volume, light-weight, and low power consumption. Table 3-6 CF card interface specifications Item Specification Number of CF card slots 1 Supported CF card capacity CF card function 256 MB/512 MB/1 GB (256 MB by default) It can be used to record logs, store multiple program files and configuration files. The device only supports CF cards provided by H3C. If other CF cards are used, compatibility and reliability cannot be ensured. An inserted CF card can be used only after you install and fasten the card cover. 10-GE XFP Optical Interface Table GE XFP optical interface specifications Model Central wavelength Connector Fiber Max. transmission distance XFP-SX-MM850 XFP-LX-SM nm 1310 nm LC 62.5/125 µm multimode optical fiber 50/125 µm multimode optical fiber 9/125 µm single mode optical fiber 33 m ( ft.) 300 m ( ft.) 10 km (6.21 miles) XFP-LH40-SM155 0-F nm 9/125 µm single mode optical fiber 40 km (24.86 miles) XFP-LH80-SM nm 9/125 µm single mode optical fiber 80 km (49.71 miles) 3-4

28 10-GE SFP+ Optical Interface Table G SFP+ optical interface specifications Model Central wavelength Connector Fiber Max. transmission distance SFP+-SR-MM nm 62.5/125 µm multimode optical fiber 50/125 µm multimode optical fiber 33 m ( ft.) 300 m ( ft.) SFP-XG-LX220-M M nm LC 62.5/125 µm multimode optical fiber 50/125 µm multimode optical fiber 220 m ( ft.) SFP-XG-LX-SM nm 9/125 µm single mode optical fiber 10 km (6.21 miles) GE SFP Interface Table 3-9 GE SFP interface specifications Model Central wavelength Connector Fiber/cable Max transmission distance SFP-GE-SX-MM 850-A 850 nm 50/125µm multimode optical fiber 62.5/125µm multimode optical fiber 550 m ( ft.) 275 m ( ft.) SFP-GE-LX-SM1 310-A SFP-GE-LH40-S M1310 SFP-GE-LH40-S M1550 SFP-GE-LH70-S M1550 SFP-GE-LH100- SM nm 1550 nm LC 9/125µm single mode optical fiber 10 km (6.21 miles) 40 km (24.86 miles) 70 km (43.50 miles) 100 km (62.14 miles) SFP-GE-LX-SM1 310-BIDI SFP-GE-LX-SM1 490-BIDI 1490 nm (receive)/13 10 nm (send) 10 km (6.21 miles) 10 km (6.21 miles) 3-5

29 Model Central wavelength Connector Fiber/cable Max transmission distance SFP-GE-LH70-S M1470-CW 1470 nm SFP-GE-LH70-S M1490-CW 1490 nm SFP-GE-LH70-S M1510-CW 1510 nm SFP-GE-LH70-S M1530-CW SFP-GE-LH70-S M1550-CW 1530 nm 1550 nm 70 km (43.50 miles) SFP-GE-LH70-S M1570-CW 1570 nm SFP-GE-LH70-S M1590-CW 1590 nm SFP-GE-LH70-S M1610-CW 1610 nm SFP-GE/FE-LX1 0-SM nm 10 km (6.21 miles) SFP-FE-SX-MM1 310-GE 1310 nm 50/125µm multimode optical fiber 62.5/125µm multimode optical fiber 2 km (1.24 miles) SFP-GE-T RJ-45 Category 5 twisted pair 100 m ( ft.) At present, the SFP-FE-SX-MM1310-GE optical module supports a transmission rate of 100 Mbps only. 10/100/1000 Mbps Electrical Interface A 10/100/1000 Mbps electrical interface adopts an RJ-45 connector, which connects with a category 5 twisted pair cable or higher, with a maximum transmission distance of 100 m ( ft.). Figure 3-2 RJ-45 connector 3-6

30 Table 3-10 Pin assignment of the RJ-45 connector Pin No. Signal 10Base-T/100Base-TX/1000Base-T Function 1 MX_0+ Transmit and receive data 2 MX_0- Transmit and receive data 3 MX_1+ Transmit and receive data 4 MX_2+ Transmit and receive data 5 MX_2- Transmit and receive data 6 MX_1- Transmit and receive data 7 MX_3+ Transmit and receive data 8 MX_3- Transmit and receive data Combo Port A Combo port can operate as either an optical port or an electrical port. You can specify a Combo port to operate as an electrical port or an optical port according to the actual networking environment. That is, a Combo port cannot operate as both an electrical port and an optical port simultaneously. When one is enabled, the other is automatically disabled. When an optical Combo port is enabled, it operates as a GE SFP/LC optical port. For details, refer to GE SFP Interface; when an electrical Combo port is enabled, the other is a 10/100/1000 Mbps electrical port, for details, refer to 10/100/1000 Mbps Electrical Interface. S9500E Software Feature List Table 3-11 S9500E software feature list Link layer Category MAC address management VLAN QinQ Virtualization Spanning Tree Protocol Features Link aggregation, port isolation, port mirroring DLDP Limit to the number of MAC addresses learned Static MAC address configuration Port-based VLAN Basic QinQ and selective QinQ Intelligent Resilient Framework 2 (IRF2) STP/MSTP/RSTP BPDU tunnel Digest snooping 3-7

31 Category Traffic suppression Traffic accounting QoS ACL IPv4 protocols IPv6 protocols IPv4 routing protocols Features Port-based broadcast traffic suppression Port-based unknown multicast traffic suppression Port-based unknown unicast traffic suppression Port-absolute-bandwidth-based traffic suppression (according to PPS and BPS) Output queue traffic accounting PCL accounting (EPCL/IPCL) Mark/ReMark CAR (Ingress/Egress) Traffic shaping (Egress) Congestion management Queue management Dynamic modular QoS CLI (MQC) Ingress/egress ACL Basic ACL, advanced ACL, user-defined ACL Port ACL, VLAN ACL, global ACL TCP, UDP, RawIP, Ping, TraceRoute Telnet, FTP, TFTP ICMPv4 DNS UDP Helper DHCP NTP ARP, ARP Proxy Software NAT IPv4/IPv6 dual stack TCP6, UDP6, RawIP6, Pingv6, TraceRoute6 Telnet6, FTP6, TFTP6 DNS6 ICMPv6 VRRPv3 DHCP6 ND PMTUD (IPv6) RIPv1/v2 OSPFv2 IS-IS BGPv4 Static routing/route policy/route recursion/policy based routing for IPv4 3-8

32 Category IPv6 routing protocols Layer-2 multicast Layer-3 multicast MPLS* Device security Network security User security Device management methods RIPng OSPFv3 IS-IS6 BGP4+ Features Static routing/route policy/route recursion/policy based routing for IPv6 IGMPv1/v2/v3 Snooping MLDv1/v2 Snooping IPv4/IPv6 multicast VLAN+ Multicast static routing IPv4 intra-domain routing, IPv4 inter-domain routing IPv4 multicast group management IPv6 intra-domain routing, IPv6 inter-domain routing IPv6 multicast group management MPLS basic functions MPLS L3VPN MPLS TE/FRR VPLS VLL Multicast VPN Data packet attack defense Protocol packet attack defense Attack detection Protocol packet protection Packet receive/send diagnosis Packet validity check URPF check Packet filtering ARP attack defense SIP/SA consistency check Protocol-classification-based traffic limit Device management security Network user binding NAS AAA SSH2.0 CLI-based device configuration through the console port Remote CLI-based device configuration through the AUX port (Modems are used in between.) CLI-based device management through Telnet CLI-based device management through stelnet (SSH) 3-9

33 Category File management Supported system operating modes Network maintenance Network management HA OAA Features File upload/download through FTP/TFTP File upload/download through SFTP/SCOPY Creation, copy, deletion, and saving of files and directories and formatting Standard mode Enhanced Layer-2 mode Enhanced Layer-3 mode Ping TraceRoute LSP Ping/Tracert mtracert Port loop detection NQA SNMPv1/SNMPv2c/SNMPv3 RMON Network management platform imc LLDP/LLDP-MED MIB Board hot swapping Active/standby switchover Inline hot fix GR VRRP, VRRPE BFD for VRRP/BGP/IS-IS/RIP/OSPF/RSVP/static routing Smart Link RRPP IP FRR ISSU MPLS TE FRR ACSEI ACFP OAA multi-service board All specifications are subject to changes without notice. For up-to-date information, refer to the latest manuals on H3C website at

34 4 Typical Applications Core Switches on Enterprise Networks Figure 4-1 S9500E application in the core of enterprise networks Local network 1 Local network 2 2 S9500E S 9500E Local network N PSTN DDN /FR/ ATM / MPLS Branch 1 Branch 2 Branch N With large switching capacity and Layer-2/-3 wire speed forwarding, the S9500E series can be deployed as core switches on enterprise networks for high-capacity data switching. With sound high reliability design and mechanisms, the S9500E series can ensure the normal operation of the enterprise networks. For details, refer to High Availability. With complete MPLS VPN solutions, the S9500E series can help isolate data of different services. The S9500E series can be networked with H3C S9500/S7506E/S5516/S3526 switches, and low-end to mid-range routers to provide a total network solution. 4-1

35 5 Ordering Guide Ordering an S9500E Routing Switch This section tells you what to consider when purchasing an S9500E routing switch. Network requirements Location of the switch in your network, and the role it plays Adequate switching capability of the switch for handling network traffic Required processing and connecting capabilities for uplinks and downlinks Scalability of the switch for network expansion Reliability required Required transmission distance in the network Switch models Table 5-1 S9500E models Model Configuration Remarks S9505E S9508E-V S9512E S9505E host, which provides five LPU slots and two MPU slots. S9508E-V host, which provides eight LPU slots and two MPU slots. S9512 host, which provides twelve LPU slots and two MPU slots. Optional PSU Table 5-2 S9500E PSU Model Description Remarks NEPS1800-A NEPS1200-D NEPS2000-D NEPS3500-D AC sub-psu, with a maximum output power of 1800 W DC PSU, with a maximum output power of 1200 W DC PSU, with a maximum output power of 2000 W DC PSU, with a maximum output power of 3500 W An AC PSU consists of one AC PSU (with the model NEPS3500-A) and one or two 1800 W AC sub-psus. You can select the PSUs as needed. 1+1 redundancy is recommended. 5-1

36 Purchasing MPUs Table 5-3 S9500E MPUs MPU Product models Remarks LSR1SRP2B1/LSR1 SRP2C1 LSR1SRP2B2/LSR1 SRP2C2 Applicable to S9508E-V and S9512E Applicable to S9505E The LSR1SRP2B1 and LSR1SRP2B2 do not support BFD and RRPP fast detection (RRPP is supported). Purchasing LPUs Table 5-4 S9500E LPUs LPU Configuration Remarks LSR1GT24LEC1/LS R2GT24LEB1 LSR1GT48LEC1/LS R2GT48LEB1 LSR1GP24LEC1/LS R2GP24LEB1 LSR1GP48LEB1/LS R1GP48LEC1 LSR2GV48REB1 LSR1XP2LEB1/LSR 1XP2LEC1 LSR1XP4LEB1/LSR 1XP4LEC1 LSR1XP16REB1 Sixteen 10/100/1000 Mbps autosensing RJ-45 electrical interfaces; eight Combo ports Forty-eight 10/100/1000 Mbps autosensing RJ-45 electrical interfaces Sixteen GE SFP/LC optical interfaces; eight Combo ports Forty-eight GE SFP/LC optical interfaces Forty-eight 10/100/1000 Mbps autosensing RJ-45 electrical interfaces (high-port-density LPU) Two 10 GE XFP optical interfaces Four 10 GE XFP optical interfaces Sixteen 10 GE BASE-R SFP+/LC optical interface (high-port-density LPU) Applicable to the S9505E, S9508E-V and S9512E 5-2