H3C_S7500E_MPLS基础典型配置举例

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H3C S7500E 引擎

7. LSQ1MPUA：该主控板为S7502E的专用主控板，板上没有交换网，只承担设备的控制任务，不承担数据转发任务。
8. LSQ1CGP24TSC：该主控板为S7503E-S的专用主控板，只支持单主控。
S7502E S7503E-S S7503E S7506E S7510E S7506E-V
LSQ1SRP2XB0(Salience VI-10GE) No No Yes Yes Yes Yes
LSQ1SRPB0(Salience VI) No No Yes Yes Yes Yes
LSQ1SRP1CB0(Salience VI-Turbo) No No Yes Yes Yes Yes
LSQ1MPUB0(Salience VI-Lite) No No Yes Yes Yes Yes
除S7503E-S 外，S7500E 系列以太网交换机都是双主控系统
CPU：Salience VI系列主控板，除了LSQ1CGP24TSC之外，用的都是600MHz的CPU。LSQ1CGP24TSC使用的是400MHz的CPU；
内存：Salience VI系列主控板内存都是512M；
Flash：Salience VI系列主控板配置的Flash都是64M
CF卡：Salience VI系列主控板，除了LSQ1CGP24TSC之外，都支持标准的CF卡。主控板不自带CF卡，需用户自行配置。
交容量：Salience VI系列主控板，除了LSQ1SRPD（Salience VI-Plus）和LSQ1CGP24TSC之外，单个主控板的交换容量都是384G。
LSQ1SRP12GB（Salience VI-GE）上带有12个GE、FE自适应的SFP光口；

H3C_S7500E_SNMP典型配置举例

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目录1 简介 (1)2 配置前提 (1)3 SNMPv1/SNMPv2c配置举例 (1)3.1 组网需求 (1)3.2 使用版本 (1)3.3 配置注意事项 (1)3.4 配置步骤 (2)3.4.1 设备的配置 (2)3.4.2 NMS的配置 (2)3.5 验证配置 (4)3.6 配置文件 (5)4 SNMPv3配置举例 (6)4.1 组网需求 (6)4.2 使用版本 (6)4.3 配置注意事项 (6)4.4 配置步骤 (6)4.4.1 设备的配置 (6)4.4.2 NMS的配置 (7)4.4.3 验证配置 (9)4.5 配置文件 (10)5 相关资料 (11)1 简介本文档介绍了SNMP功能典型配置举例。

2 配置前提本文档不严格与具体软、硬件版本对应，如果使用过程中与产品实际情况有差异，请参考相关产品手册，或以设备实际情况为准。

本文档中的配置均是在实验室环境下进行的配置和验证，配置前设备的所有参数均采用出厂时的缺省配置。

如果您已经对设备进行了配置，为了保证配置效果，请确认现有配置和以下举例中的配置不冲突。

本文档假设您已了解SNMP特性。

3 SNMPv1/SNMPv2c配置举例3.1 组网需求如图1所示，服务器作为NMS通过SNMPv1/SNMPv2c协议对设备进行配置文件备份，并且当设备出现故障时能够主动向NMS发送告警信息。

图1SNMPv1/v2c功能典型配置组网图3.2 使用版本本举例是在S7500E-CMW710-R7150版本上进行配置和验证的。

3.3 配置注意事项•SNMPv2c与SNMPv1配置方法完全一致，本举例中以配置SNMPv2c为例进行介绍。

华三交换机配置方法及操作案例

华三交换机配置方法及操作案例一、系统IP配置:[H3C]vlan20[H3C]management-vlan20[H3C]interfacevlan-interface 20 创建并进入管理VLAN[H3C]undointerface vlan-interface 20 删除管理VLAN接口[H3C-Vlan-interface20]ipaddress 192.168.1.2 255.255.255.0 配置管理VLAN接口静态IP地址(缺省为192.168.0.234)[H3C-Vlan-interface20]undoip address 删除IP 地址[H3C-Vlan-interface20]ipgateway192.168.1.1 指定缺省网关(默认无网关地址) [H3C-Vlan-interface20]undoip gateway[H3C-Vlan-interface20]shutdown 关闭接口[H3C-Vlan-interface20]undoshutdown 开启[H3C]displayip 显示管理VLAN接口IP的相关信息[H3C]displayinterface vlan-interface 20 查看管理VLAN的接口信息<H3C>debuggingip 开启IP调试功能<H3C>undodebugging ip二、DHCP客户端配置:[H3C-Vlan-interface20]ipaddress dhcp-alloc 管理VLAN接口通过DHCP方式获取IP地址[H3C-Vlan-interface20]undoip address dhcp-alloc 取消[H3C]displaydhcp 显示DHCP客户信息<H3C>debuggingdhcp-alloc 开启DHCP调试功能<H3C>undodebugging dhcp-alloc三、端口配置:[H3C]interfaceEthernet0/3[H3C-Ethernet0/3]shutdown[H3C-Ethernet0/3]speed100 速率,可为10,100,1000和auto(缺省)[H3C-Ethernet0/3]duplexfull 双工,可为half,full 和auto(缺省) 光口和汇聚后不能配置[H3C-Ethernet0/3]flow-control 开启流控,默认为关闭[H3C-Ethernet0/3]broadcast-suppression20 设置抑制广播百分比为20%,可取5,10,20,100,缺省为100,同时组播和未知单播也受此影响[H3C-Ethernet0/3]loopbackinternal 内环测试[H3C-Ethernet0/3]loopbackexternal 外环测试,需插接自环头,必须为全双工或者自协商模式[H3C-Ethernet0/3]portlink-type trunk 设置链路的类型为trunk,可为access(缺省),trunk[H3C-Ethernet0/3]porttrunk pvid vlan 20 设置20为该trunk的缺省VLAN,默认为1(trunk线路两端的PVID必须一致)[H3C-Ethernet0/3]portaccess vlan 20 将当前access端口加入指定的VLAN[H3C-Ethernet0/3]porttrunk permit vlan all 允许所有的VLAN通过当前的trunk端口,可多次使用该命令[H3C-Ethernet0/3]mdiauto 设置以太端口为自动监测,normal(缺省)为直通线,across为交叉线[H3C]link-aggregationEthernet 0/1 to Ethernet 0/4 将1-4口加入汇聚组,1为主端口,两端需要同时配置,设置了端口镜像以及端口隔离的端口无法汇聚[H3C]undolink-aggregation Ethernet 0/1 删除该汇聚组[H3C]link-aggregationmode egress 配置端口汇聚模式为根据目的MAC地址进行负荷分担,可选为 ingress,egress和both,缺省为both[H3C]monitor-portEthernet 0/2 将该端口设置为镜像端口,必须先设置镜像端口,删除时必须先删除被镜像端口,而且它们不能同在一个端口,该端口不能在汇聚组中,设置新镜像端口时,新取代旧,被镜像不变[H3C]mirroring-portEthernet 0/3 to Ethernet 0/4 both 将端口3和4设置为被镜像端口,both为同时监控接收和发送的报文,inbound表示仅监控接收的报文,outbound表示仅监控发送的报文[H3C]displaymirror[H3C]displayinterface Ethernet 0/3<H3C>resetcounters 清除所有端口的统计信息[H3C]displaylink-aggregation Ethernet 0/3 显示端口汇聚信息[H3C-Ethernet0/3]virtual-cable-test 诊断该端口的电路状况四、VLAN配置:[H3C]vlan2[H3C]undovlan all 删除除缺省VLAN外的所有VLAN,缺省VLAN不能被删除[H3C-vlan2]portEthernet 0/4 to Ethernet 0/7 将4到7号端口加入到VLAN2中,此命令只能用来加access端口,不能用来增加trunk或者hybrid端口[H3C-vlan2]port-isolateenable 打开VLAN内端口隔离特性,不能二层转发,默认不启用该功能[H3C-Ethernet0/4]port-isolateuplink-port vlan 2 设置4为VLAN2的隔离上行端口,用于转发二层数据,只能配置一个上行端口,若为trunk,则建议允许所有VLAN通过,隔离不能与汇聚同时配置[H3C]displayvlan all 显示所有VLAN的详细信息S1550E支持基于端口的VLAN,通过创建不同的user-group来实现,一个端口可以属于多个user-group,不属于同一个user-group的端口不能互相通信,最多支持50个user-group[H3C]user-group20 创建user-group 20,默认只存在user-group 1[H3C-UserGroup20]portEthernet 0/4 to Ethernet 0/7 将4到7号端口加入到VLAN20中,初始时都属于user-group1中[H3C]displayuser-group 20 显示user-group 20的相关信息五、系统管理:[H3C]mac-addressblackhole H-H-H vlan 1 在VLAN1中添加黑洞MAC[H3C]mac-addressstatic H-H-H interface Ethernet 0/1 vlan 1 在VLAN1中添加端口一的一个mac [H3C]mac-addresstimer aging 500 设置MAC地址表的老化时间为500s[H3C]displaymac-address[H3C]displayarp[H3C]mac-addressport-binding H-H-H interface Ethernet 0/1 vlan 1 配置端口邦定[H3C]displaymac-address port-binding[H3C]displaysaved-configuration[H3C]displaycurrent-configuration<H3C>save[H3C]restoredefault 恢复交换机出厂默认配置,恢复后需重启才能生效[H3C]displayversion<H3C>reboot[H3C]displaydevice[H3C]sysnamebigheap[H3C]info-centerenable 启用系统日志功能,缺省情况下启用[H3C]info-centerloghost ip 192.168.0.3 向指定日志主机(只能为UNIX或LINUX,不能为Windows)输出信息,需先开启日志功能,缺省关闭[H3C]info-centerloghost level 8 设置系统日志级别为8,默认为 5.级别说明:1.emergencies2.alerts 3.critical 4.errors 5.warnings 6.notifications rmational8.debugging<H3C>terminaldebugging 启用控制台对调试信息的显示,缺省控制台为禁用<H3C>terminallogging 启用控制台对日志信息的显示,缺省控制台为启用<H3C>terminaltrapping 启用控制台对告警信息的显示,缺省控制台为启用[H3C]displayinfo-center 显示系统日志的配置和缓冲区记录的信息[H3C]displaylogbuffer 显示日志缓冲区最近记录的指定数目的日志信息[H3C]displaytrapbuffer 显示告警缓冲区最近记录的指定数目的日志信息<H3C>resetlogbuffer 清除日志缓冲区的信息<H3C>resettrapbuffer 清除告警缓冲区的信息六、案例:某公司有一台三层交换机、两台二层交换机，给每个部门划分不用VLAN，但是VLAN要互联，三层到二层交换机为了防止单线故障使用链路聚合，vlan2为销售部，vlan3为财务部。

H3C S7500E系列以太网交换机操作手册

1.7 VLAN显示和维护
.............................................................................................................. 1-13
1.8 VLAN典型配置举例
3.2 配置Voice VLAN ................................................................................................................ 3-3
3.2.1 配置准备
........................................................................................... 2-3
第
3章 Voice VLAN配置
.........................................................................................................3-1
2.3 Isolate-user-vlan显示和维护
.............................................................................................. 2-2
2.4 Isolate-user-vlan典型配置举例
1.1 VLAN简介
.......................................................................................................................... 1-1

H3C_S7500E_IGMP典型配置举例

3.1 组网需求············································································································································3-1 3.2 配置思路············································································································································3-2 3.3 使用版本············································································································································3-2 3.4 配置注意事项·····································································································································3-2 3.5 配置步骤············································································································································3-2 3.6 验证配置············································································································································3-3 3.7 配置文件············································································································································3-4 4 IGMP静态加入组播组配置举例 ·········································································································· 3-6 4.1 组网需求············································································································································3-6 4.2 配置思路············································································································································3-7 4.3 使用版本············································································································································3-7 4.4 配置注意事项·····································································································································3-7 4.5 配置步骤············································································································································3-7 4.6 验证配置············································································································································3-9 4.7 配置文件··········································································································································3-10 5 IGMP SSM Mapping典型配置举例 ·································································································· 5-11 5.1 组网需求··········································································································································5-11 5.2 使用版本··········································································································································5-12 5.3 配置步骤··········································································································································5-12 5.4 验证配置··········································································································································5-14 5.5 配置文件··········································································································································5-15 6 参考资料 ·········································································································································· 6-16

华三S7500E使用注意

一、S7500E配置类问题1、S7500E主控、单板介绍主控：Salience VI(LSQM1SRPB0) 最基本的引擎，支持IPv4、IPv6，可以为SA单板提供IPV4和IPV6三层集中代理，在7503E、7506E、7506E-V上单主控每槽位提供24GE(双向48GE)转发能力，配置双主控负载分担方式实现在每个槽位48GE(双向96GE)接口的跨板线速转发能力。

但对7510E单主控每槽位提供12GE(双向24GE)转发能力，配置双主控负载分担方式实现在每个槽位24GE(双向48GE)接口的跨板线速转发能力。

Salience VI-Plus(LSQM1SRPD0) 交换容量是Salience VI引擎的二倍，在7510E上单主控每槽位提供24GE(双向48GE)转发能力，配置双主控负载分担方式可实现每个槽位48GE(双向96GE)接口的跨板线速转发能力，但配置在7503E，7506E，7506E-V时和Salience VI引擎转发能力一致，其它软件特性和Salience VI引擎一样。

Salience VI-Lite(LSQM1MPUB0) 在Salience VI引擎基础上去掉了为SA板卡代理的功能，其它性能一样，主要面向商务条件苛刻的项目，在使用该引擎的条件下，SA单板必须与SC单板同时配置销售，才能使SA单板正常工作。

严禁只配置SA系列单板。

Salience VI-10GE(LSQM1SRP2XB0) 在Salience VI引擎基础上增加2个万兆端口，可线速转发，软件特性和SC板卡一致；其它特性和Salience VI引擎一样。

Salience VI-GE(LSQM1SRP12GB0) 在Salience VI引擎基础上增加12个GE端口，可线速转发，引擎GE端口软件特性和SC板卡一致；其它特性和Salience VI引擎一样。

Salience VI-Turbo(LSQM1SRP1CB0) 增强型引擎，支持IPv4、IPv6，可以为SA、SC单板提供IPV4、IPV6和MPLS集中代理，在7503E、7506E、7506E-V上单主控每槽位提供24GE(双向48GE)转发能力，配置双主控负载分担方式实现在每个槽位48GE(双向96GE)接口的跨板线速转发能力。

H3C 7500端口基本配置命令

1.1 端口基本配置命令 .............................................................................................................. 1-1 1.1.1 broadcast-suppression（以太网端口视图） ........................................................... 1-1 1.1.2 broadcast-suppression（VLAN视图） .................................................................... 1-2 1.1.3 copy configuration ................................................................................................... 1-3 1.1.4 description ............................................................................................................... 1-4 1.1.5 display brief interface .............................................................................................. 1-5 1.1.6 display interface ...................................................................................................... 1-6 1.1.7 display loopback-detection...................................................................................... 1-9 1.1.8 display port ............................................................................................................ 1-10 1.1.9 display transceiver-information interface .............................................................. 1-10 1.1.10 duplex.................................................................................................................. 1-11 1.1.11 flow-control .......................................................................................................... 1-12 1.1.12 flow-control enable .............................................................................................. 1-13 1.1.13 flow-interval ......................................................................................................... 1-13 1.1.14 hardspeedup ....................................................................................................... 1-14 1.1.15 interface............................................................................................................... 1-15 1.1.16 jumboframe enable ............................................................................................. 1-16 1.1.17 loopback-detection enable .................................................................................. 1-16 1.1.18 loopback-detection interval-time ......................................................................... 1-17 1.1.19 mdi....................................................................................................................... 1-18 1.1.20 multicast-suppression ......................................................................................... 1-18 1.1.21 port access vlan .................................................................................................. 1-20 1.1.22 port hybrid pvid vlan ............................................................................................ 1-20 1.1.23 port hybrid vlan.................................................................................................... 1-21 1.1.24 port link-type........................................................................................................ 1-22 1.1.25 port trunk permit vlan .......................................................................................... 1-23 1.1.26 port trunk pvid vlan.............................................................................................. 1-24 1.1.27 reset counters interface....................................................................................... 1-24 1.1.28 shutdown ............................................................................................................. 1-25 1.1.29 speed................................................................................................................... 1-25 1.1.30 speedup............................................................................................................... 1-26 1.1.31 virtual-cable-test.................................................................................................. 1-27

H3C网络设备选型及无线组网方案

使用IRF2后，接入到汇聚以及汇聚到核心的双链路上行都是负载分担方式---
物尽其用，保护投资！条链路当两条用
两
6
好处二：网络更简单
VLAN
路由路径
配置文件
使用使用IRF2 前，二层启用生成树，VLAN IRF2 前规划复杂；三层启用VRRP，路由规划复
杂；每台单独配置，管理复杂
无线定位
无线客户端
无线控制器
WX3010
WX5002
S7500E/S9500E插卡
S5800低容量插卡
WX3024
WX5004
WX6103
S5800大容量插卡
FIT/FAT/MESH AP
WA2110-AG
WA2220E-AG
WA2220E-AG-T
WA1208E-GP
WA2610-AGN
WA 2620E-AGN
WA2210-AG
WA2210E-GE
WA2210X-G/GE WA2220X-AG/AGP/AGE
WA2612-AGN
WA2620-AGN
WA 2610E-AGN
MESH/ 网桥网桥
WB2320X-AGE
WH2530X-DAG

14
H3C WLAN 12年的积累
2000 正式组建WLAN研发团队 2001-2002 率先在中国发布WA1000系列企业级AP和WA1208系列运营级大功率AP 2003 完成3Com WLAN产品线整合 2004 成立印度研究所，专注于Fit AP架构研发 2005 部署中国首个采用Fit AP解决方案的985大学无线校园网 2006 参与运营商 “无线城市”建设，并发布一体化移动网解决方案（UMN） 2007 率先发布有线无线一体化管理平台，推出核心交换机的无线控制器插卡，引领有线无线

H3C交换机板卡及模块

RJ-45
适用:支持SFP模块的绝大多数交换机
GBIC-光、电模块
XFP光模块
XFP万兆光模块，接口类型为LC 对于62.5um MMF w/ 160MHz*km光纤，最大传输距离26M；对于50um MMF w/ 500MHz*km光纤，最大传输距离82M；对于50um MMF w/ 2000MHz*km光纤，最大传输距离300M；
3600-SI/EI 5100-SI
SFP模块名称中心波长 SFP模块提供的用户接口连接器类型接口线缆规格及数量最大传输距离
100Base-FX-MM-SFP
62.5/125µm多模光纤 2km
0～24
100Base-FX-SM-SFP
100Base-FX-SM-LR-SFP
1310nm
LC
9/125µm单模光纤 15km 9/125µm单模光纤 40km 9/125µm单模光纤 80km
0～24
0～24
100Base-FX-SM-VR-SFP
1550nm
0～24
SFP模块名称
中心波长
SFP模块提供的用户接口连接器类型
接口线缆规格及最大传输距离
数量
1000Base-SX-SFP
7500
1、75系列的3款引擎，整机的交换容量由引擎决定， 7502除外 2、业务版种类较多，千兆万兆百兆、对于支持 POE的业务版，首先具备POE机型、POE电源，还需要对业务版安装DIMM内存。 3、EPON业务版需要购买EPON的软件包，一块引擎配一套（软件对引擎有要求III的支持） 4、防火墙业务版，无线业务版（WX5002-128）， NETSTREAM业务版等。

H3C配置经典全面教程(

H3C配置经典全面教程〔经验和资料收集整理版〕1 H3C MSR路由器、交换机根本调试步骤〔初学级别〕：1.1 如何登陆进路由器或交换机搭建配置环境第一次使用 H3C系列路由器时，只能经过配置口 (Console) 进行配置。

1〕将配置电缆的RJ-45 一端连到路由器的配置口(Console) 上。

2〕将配置电缆的DB-9(或 DB-25)孔式插头接到要对路由器进行配置的微机或终端的串口上。

备注：登陆交换机的方法与路由器的一致，现仅用路由器举设置微机或终端的参数〔进入路由器或交换机〕1〕翻开微机〔笔录本电脑〕或终端。

若是使用微机进行配置，需要在微机上运行终端仿真程序，如Windows的超级终端。

2〕第二步：设置终端参数a、命名此终端H3C 也许自己想命的名b、选择串口一般采纳COM口，常采纳COM1c、设置终端量细参数 ( 此处点击“默认值〞即可)d、翻开路由器的电源，路由器进行启动e、当路由器启动达成后，回车几下，当出现 <H3C>时即可配置路由器。

1.2 路由器根本调试命令使用当地用户进行telnet登录的认证<H3C> system-view进入系统视图[H3C]telnet server enable翻开路由器的telnet功能[H3C]configure-user count 5设置赞同同时配置路由器的用户数[H3C]local-user telnet增加当地用户(此处为telnet用户登陆时使用的用户名 )[H3C-luser-telnet]password simple h3c设置telnet用户登陆时所使用的密码[H3C-luser-telnet]service-type telnet设置当地用户的效劳类型( 此处为 telnet)[H3C-luser-telnet]level 3设置当地用户的效劳级别[H3C-luser-telnet]quit退出当地用户视图[H3C][H3C]user-interface vty 0 4进入用户视图[H3C-ui-vty0-4]authentication-mode scheme选择“ scheme〞认证方式备注：红色局部能够由客户自行设置，此处仅做举例时使用!路由器接口的配置为接口配置ip地址<H3C> system-view进入系统视图[H3C] interface serial 3/0进入某个端口[H3C-Serial3/0] ip address为该端口设置ip地址[H3C-Serial3/0] undo shutdown对该端口进行复位[H3C-Serial3/0] quit退回到系统视图[H3C]备注：红色局部能够由客户自行设置，此处仅做举例时使用!静态路由或默认路由的配置<H3C> system-view进入系统视图[H3C]ip route-static192.168.0.1 添加一条静态路由[H3C]ip route-static增加一条默认路由备注：红色局部能够由客户自行设置，此处仅做举例时使用!配置文件的管理display current-configuration显示当前的配置文件<H3C>save保存配置文件display interface GigabitEthernet 0/0查察某端口的状态备注：display命令能够在任何视图下进行红色局部能够由客户自行设置，此处仅做举例时使用!交换机的配置文件管理与路由器相同，故友换机的配置幻灯片中不再做举例。

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3.1 组网需求 ··············································································································································· 1 3.2 配置思路 ··············································································································································· 2 3.3 使用版本 ··············································································································································· 2 3.4 配置注意事项········································································································································ 2 3.5 配置步骤 ··············································································································································· 2 3.6 验证配置 ··············································································································································· 4 3.7 配置文件 ··············································································································································· 4 4 利用LDP动态建立LSP配置举例 ············································································································ 6 4.1 组网需求 ··············································································································································· 6 4.2 配置思路 ··············································································································································· 7 4.3 使用版本 ··············································································································································· 7 4.4 配置步骤 ··············································································································································· 7 4.5 验证配置 ············································································································································· 12 4.6 配置文件 ············································································································································· 14 5 相关资料 ············································································································································· 18
3.4 配置注意事项
• 通过静态路由配置路由信息时，如果静态路由指定的是出接口，则静态 LSP 必须指定相同的出接口；如果静态路由指定的是下一跳，则静态 LSP 必须指定相同的下一跳。
• 配置 Ingress 和 Transit 时，本地的公网地址不能被指定为下一跳。 • 由于 MPLS 功能会在原有报文上封装一层或多层标签，因此建议用户在使能某 VLAN 接口的
i
1 简介
本文档介绍通过静态方式和 LDP（Label Distribution Protocol，标签分发协议）方式建立 LSP 的基本过程。建立静态 LSP 需要用户在报文转发路径中的各个 LSR 上手工配置为 FEC 分配的标签。通过静态方式建立 LSP 消耗的资源比较少，但静态建立的 LSP 不能根据网络拓扑变化动态调整。因此，静态 LSP 适用于拓扑结构简单并且稳定的小型网络。 LDP 协议是 MPLS 的一种信令协议，负责划分 FEC、通告 FEC—标签绑定、建立维护 LSP 等。通过 LDP 建立 LSP 消耗资源比较多，但动态建立的 LSP 能根据网络拓扑变化动态调整。因此，LDP 方式建立 LSP 适用于拓扑结构复杂并且不太稳定的大中型网络。
MPLS 功能后，将该 VLAN 内端口的 jumboframe 帧功能开启，并根据实际应用和标签嵌套层数配置相应的帧长，避免某些报文因超长而被丢弃。
3.5 配置步骤
(1) 配置各接口的 IP 地址按照图 1 配置各接口的IP地址和掩码，包括LoopBack接口，具体配置过程略。 (2) 配置静态路由，使两条 LSP 的 Ingress 节点上存在到达 FEC 目的地址的路由。 # 配置 Switch A。
# 配置完成后，在 Ingress 设备上执行 display ip routing-table 命令，可以看到静态路由已生效。以 Switch A 为例：
[SwitchA] display ip routing-table
Destinations : 13
Routes : 13
Destination/Mask 0.0.0.0/32
H3C S7500E MPLS 基础典型配置举例
Copyright © 2015 杭州华三通信技术有限公司版权所有，保留一切权利。非经本公司书面许可，任何单位和个人不得擅自摘抄、复制本文档内容的部分或全部，并不得以任何形式传播。本文档中的信息可能变动，恕不另行通知。
目录
1 简介 ······················································································································································ 1 2 配置前提 ··············································································································································· 1 3 静态LSP配置举例 ································································································································· 1
Proto Pre Cost Direct 0 0
NextHop 127.0.0.1 2
Interface InLoop0
172.16.2.1/24
Static 60 0
10.0.3.0/24
Direct 0 0
10.0.3.0/32
Direct 0 0
10.0.3.1/32
Direct 0 0
1.1.1.9/32 127.0.0.0/8 127.0.0.0/32 127.0.0.1/32
• 在静态 LSP 环境中，只需要 Ingress 节点上存在到达 FEC 目的地址的路由即可，Transit 和 Egress 节点上无需存在到达 FEC 目的地址的路由，因此本例中使用简单的静态路由即可完成路由配置。
3.3 使用版本
本举例是在 S7500E-CMW710-R7150 版本上进行配置和验证的。
Vlan-int10
172.16.2.0/24
Switch A
Switch B
Switch C 配置思路
• 为了使设备能够按正确的路径转发 MPLS 报文，需要在手工配置 LSP 的标签时，确保上游 LSR 出标签的值就是下游 LSR 入标签的值。