Huawei S Series Switch VRPv5 and Cisco Catalyst Switch Huawei S Series Switch VRPv5 and Cisco...

Huawei S Series Switch VRPv5 and Cisco Catalyst

Switch IOS IOT Report (V1.4)

Huawei Technologies CO., LTD.

All Rights Reserved

2015-11-10 of 117

Contents

1 Device Version Information ................................................................................................... 3

1.1 Device Version for Interoperability Test ..................................................................................................... 3

1.2 Test Instrument Information ....................................................................................................................... 4

2 Summaries of Test Results and Test Solutions .................................................................... 4

2.1 Summaries of Interoperability Test Results ................................................................................................. 4

2.2 Test Design ................................................................................................................................................ 6

2.2.1 The Design Thoughts ........................................................................................................................ 6

2.2.2 Test Bed Design ................................................................................................................................ 6

2.3 Statement .................................................................................................................................................. 7

2.3.1 Device Type and Version Avaliability ................................................................................................ 7

3 Interoperability Test Report ................................................................................................... 7

3.1 Layer 2 Function ....................................................................................................................................... 7

3.1.1 Interface ........................................................................................................................................... 7

3.1.2 VLAN .............................................................................................................................................13

3.1.3 MUX VLAN ...................................................................................................................................15

3.1.4 LLDP ..............................................................................................................................................20

3.2 Layer 2 Reliability ....................................................................................................................................21

3.2.1 Layer 2 Ring Network Protocol ........................................................................................................21

3.2.2 Eth-OAM Interoperability Test .........................................................................................................52

3.2.3 Link Aggregation Function Interoperability Test ...............................................................................57

3.3 Layer 3 Function ......................................................................................................................................63

3.3.1 IP Routing Interoperability Test ........................................................................................................63

3.3.2 NTP Function ..................................................................................................................................78

3.3.3 MPLS VPN Interoperability Test ......................................................................................................86

3.3.4 Layer 3 Reliability Interoperability Test ......................................................................................... 103

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1 Device Version Information

1.1 Device Version for Interoperability Test

HUAWEI

S9700

Software Version HUAWEI Versatile Routing Platform Software

VRP (R) software, Version 5.130 (S9700 V200R003C00)

Platform Version VRP (R) software, Version 5.130

Hardware Model S9706

HUAWEI

S7700




Hardware Model S7706

HUAWEI

S5710-EI




Hardware Model S5710-52C-EI

HUAWEI

S5700-EI




Hardware Model S5700-28C-PWR-EI

HUAWEI

S5700-LI


VRP (R) software, Version 5.120 (S5700 V200R002C00SPC100)


Hardware Model S5700-52X-LI-AC

Cisco

6509E

Software Version Version 15.0(2)SG, RELEASE SOFTWARE (fc4)

Platform Version Version 15.0

Hardware Model Cisco 6504E

Cisco

4507E

Software Version Version 15.0(2)SG


Hardware Model Cisco 4507E

Cisco 3850 Software Version Version 03.02.03.SE RELEASE SOFTWARE (fc2)

Platform Version Version 03.02.03

Hardware Model Cisco 3850

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Cisco

3750-X

Software Version Version 15.0(3)S1a, RELEASE SOFTWARE (fc1)


Hardware Model Cisco 3750-X

Cisco

2960-XR

Software Version Version 15.0(2)SG, RELEASE SOFTWARE (fc4)


Hardware Model Cisco 2960-XR

1.2 Test Instrument Information

Tester Model Tester Software Tester Brand Qty

Spirent SPT-N11U Spirent TestCenter Application 4.20 Spirent 1

2 Summaries of Test Results and Test Solutions

2.1 Summaries of Interoperability Test Results

No. Test Item Test Result Remark

3.1 Layer 2 function

3.1.1 Interface Pass The common interfaces types can realize

the interoperability, the interface status is

up, working condition is normal, data traffic can be transmitted normally.

3.1.2 VLAN Pass The various port link-type modes can deal

with data packets correctly sent by each

other.

3.1.3 MUX VLAN Pass The protocol can not do interoperability

test, but the VLAN can be dealt with correctly.

3.1.4 LLDP Protocol IOT Pass The link-layer discovery protocol can

establish neighbor between HUAWEI and

Cisco device, and the neighbor information

is right.

3.2 Layer 2 Reliability

3.2.1 Layer 2 Ring Protocol

3.2.1.1 VBST and PVST+ IOT_Block

on HUAWEI

Pass VBST work normally

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3.2.1.2 VBST and PVST+ IOT_Block

on Cisco


3.2.1.3 VBST and RPVST+

IOT_Block on HUAWEI


3.2.1.4 VBST and RPVST+ IOT_Block on Cisco


3.2.1.5 MSTP and MST IOT Pass MSTP work normally

3.2.1.6 BPDU Guard IOT Pass Protocol work normally

3.2.1.7 ROOT Guard IOT Pass Protocol work normally

3.2.2 Eth-OAM IOT

3.2.2.1 EFM IOT Pass Protocol work normally

3.2.2.2 CFM IOT Pass Protocol work normally

3.2.3 Link Aggregation IOT

3.2.3.1 LACP IOT Pass Link Aggregation Group work normally

3.2.3.2 Manual Mode Link

Aggregation IOT

Pass Link Aggregation Group work normally

3.3 Layer 3 function

3.3.1 IP routing IOT

3.3.1.1 RIP protocol IOT Pass Protocol work normally

3.3.1.2 BGP protocol IOT Pass Protocol work normally

3.3.1.3 ISIS protocol IOT Pass Protocol work normally

3.3.1.4 ISIS MD5 Authentication IOT Pass Protocol authentication work normally

3.3.1.5 OSPF protocol IOT Pass Protocol work normally

3.3.1.6 OSPF MD5 authentication IOT Pass Protocol work normally

3.3.2 NTP IOT

3.3.2.1 NTP Client IOT Pass Protocol work normally

3.3.2.2 NTP Server IOT Pass Protocol work normally

3.3.2.3 NTP authentication Pass Protocol authentication work normally

3.3.3 MPLS VPN IOT

3.3.3.1 L3VPN IOT Pass Protocol work normally

3.3.3.2 VLL IOT Pass Protocol work normally

3.3.3.3 VPLS IOT Pass Protocol work normally

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3.3.4 Layer 3 Reliability

3.3.4.1 BFD for RIP function IOT Pass Protocol work normally

3.3.4.2 BFD for OSPF function IOT Pass Protocol work normally

3.3.4.3 BFD for ISIS function IOT Pass Protocol work normally

3.3.4.4 BFD for BGP function IOT Pass Protocol work normally

3.3.4.5 VRRP IOT Pass Protocol work normally

2.2 Test Design

2.2.1 The Design Thoughts

As for the hardware of DUTs, we select HUAWEI and Cisco current mainstream campus switches,

covering the products applied on core, aggregation, and access layer. As for the software versions of

DUTs, we select the mainstream commercial versions based on the latest platform, that is HUAWEI VRPv5 platform and Cisco Comware v5 platform.

The interoperability test covers Layer 2 functions, Layer 2 reliabilities, Layer 3 functions, Layer 3

reliabilities. The interoperability test cases are the common campus test properties using at least two

devices to realize the interoperability of protocols and data packets processing. The interoperability

test can fully demonstrate that HUAWEI and Cisco switches have good interoperability on dealing

with protocols and have good consistencies on protocols, can provide references for a mixed network

using HUAWEI and Cisco switches simultaneously.

The test bed is designed using three-layer structure. Every layer is interconnected by HUAWEI and

Cisco corresponding switches. The core layer uses High-end chassis switches (HUAWEI S9700/S7700

and Cisco 6509E/4507E) fully interconnected with each other. The aggregation layer uses enhanced

fixed-port switches (HUAWEI S5710-EI and Cisco 3850) interconnected with each other. The access

layer uses Layer 3 access switches (HUAWEI S5700-EI and Cisco 3750-X) and Layer 2 access switches (HUAWEI S5700-LI and Cisco 2960-XR).

The interoperability test cases of this report are based on the following test bed and excerpt

corresponding topologies to represent the test.

2.2.2 Test Bed Design

Layer 3 high reliability symmetrical structure interoperability test bed:

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Cisco 6509E

HUAWEI S5700-LI

HUAWEI S5710 EI

HUAWEI S7700

HUWEI S9700

Cisco 2960-XR

Cisco 3850

Cisco 4507E

HUAWEI S5700 -EICisco 3750-X

Server

Server

Server

Server

Client ClientClientClient Client ClientClientClient

2.3 Statement

2.3.1 Device Type and Version Availability

HUAWEI: Based on VRPv5 version S series switch

Cisco: Based on IOS version Catalyst series switch

The support function of different device types and LPU cards is not the same, so the specific interoperability function depends on the support degree of device features.

3 Interoperability Test Report

3.1 Layer 2 Function

3.1.1 Interface

Test Item Interface

Test Objective To validate that HUAWEIand Cisco switches can realize the interoperability of various

types of Ethernet interfaces, such as GE RJ45, GE SFP, 10GE SFP+, 10GE XFP.

Test Setup Network Diagram:

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Port_1

Port_2 Port_2

Port_1

Tport_1 Tport_2

HW-1Cisco-1

Tester

Pre-conditions:

1. All device work normally;

2. Establish the test environment according to the above diagram.

Test Procedure 1. Connect HUAWEI and Cisco switches with cable. Create VLAN and add interfaces to

the same VLAN;

2. Tester send layer 2 traffic from Tport_1 to Tport_2;

3. Change the types of Ethernet interfaces to be GE RJ45, GE SFP, 10GE SFP+, 10GE XFP and obtain the expected result 1.

Expected Result The interface negotiation status is normal, the traffic can be received by Tport_2

successfully and there is no packet loss.

Actual Result The interface negotiation status is normal, the traffic can be received by Tport_2

successfully and there is no packet loss.

GE SFP UP status:

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GE RJ45 interface UP status:

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10GE SFP+ interface UP status:

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10GE XFP interface UP status:

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Remark

Signature by Customer

Signature by

HUAWEI

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3.1.2 VLAN

Test Item VLAN

Test Objective To validate that HUAWEI and Cisco switches support interoperability of VLAN and can

identify each other's VLAN ID


Port_1

Port_2 Port_2

Port_1

Tport_1 Tport_2

HW-1Cisco-1

Tester

Pre-conditions:



Test Procedure 1. Create VLAN 100 and add interfaces to VLAN 100 in trunk mode on both devices.

Tester sends traffic from Tport_1 to Tport_2, obtain the expected result 1;

2. Change VLAN ID from 100 to 20 on Cisco Switch. Tester sends traffic from Tport_1 to Tport_2, obtain the expected result 2.

Expected Result 1. HUAWEI and Cisco switches support interoperability of same VLAN ID in layer 2.

There is no packet loss;

2. HUAWEI and Cisco switches can not support interoperability of different VLAN IDs in layer 2.

Actual Result 1. HUAWEI and Cisco switches support interoperability of same VLAN ID in layer 2.

There is no packet loss;

2. HUAWEI and Cisco switches can not support interoperability of different VLAN IDs

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in layer 2.

Remark Reference Configuration:

Cisco-1 Configuration:

!

vlan 20, 100

!

interface GigabitEthernet0/1

description Port_1

switchport trunk encapsulation dot1q

switchport trunk allowed vlan 100

switchport mode trunk

!


description Port_2




!

HW-1 Configuration:

#

interface GigabitEthernet0/0/1

port link-type trunk

port trunk allow-pass vlan 100

#




#


Signature by HUAWEI

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3.1.3 MUX VLAN

Test Item MUX VLAN

Test Objective To validate HUAWEI and Cisco can support the interoperability of MUX VLAN


Port_1-

Port_3

Port_4 Port_4

Port_1-

Port_3

Tport_1-

Tport_3

Tport_4-

Tport_6

HW-1Cisco-1

Tester

Pre-conditions:



Tester traffic constructed:

Stream1: SMAC:0001-0001-0001 DMAC:0001-0001-0002 Bandwidth: 1000frame/s






Test Procedure 1. Create VLAN 100,10,20 on both devices and add interfaces to VLANs in trunk mode;

2. Cisco configures Primary VLAN globally, specify Community VLAN and Isolated

VLAN. The three interfaces of Tester connected with device configure to be Primary

VLAN (VLAN100), Community VLAN (VLAN10), Isolated VLAN (VLAN20)

separately;

3. HUAWEI configures MUX VLAN globally, specify Group VLAN and Separate

VLAN. The three interfaces of Tester connected with device configure to be Principal VLAN (VLAN100), Group VLAN (VLAN10), Separate VLAN (VLAN20) separately;

4. Tester Tport_1(Primary VLAN) send Stream1, obtain the expected result 1;

5. Tester Tport_2(Community VLAN) send Stream2, obtain the expected result 2;

6. Tester Tport_3(Isolated VLAN) send Stream3, obtain the expected result 3;

7. Tester Tport_4(Principal VLAN) send Stream4, obtain the expected result 4;

8. Tester Tport_5(Group VLAN) send Stream5, obtain the expected result 5;

9. Tester Tport_6(Separate VLAN) send Stream6, obtain the expected result 6.

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Expected Result 1. The interfaces belong to the Cisco Community VLAN, Isolate VLAN, HUAWEI

Principal VLAN, Group VLAN, and Separate VLAN can receive the stream normally;

2. The interfaces belong to Cisco Primary VLAN, HUAWEI Principal VLAN, and Group VLAN can receive the stream normally;

3. The interfaces belong to Cisco Primary VLAN and HUAWEI Principal VLAN can

receive the stream normally;

4. The interfaces belong to Cisco Primary VLAN, Community VLAN, Isolated VLAN, HUAWEI Group VLAN, and Separate VLAN can receive the stream normally;

5. The interfaces belong to Cisco Primary VLAN, Community VLAN, and HUAWEI Principal VLAN can receive the stream normally;


receive the stream normally.

Actual Result 1. The interfaces belong to the Cisco Community VLAN, Isolate VLAN, HUAWEI

Principal VLAN, Group VLAN, and Separate VLAN can receive the stream normally;

2. The interfaces belong to Cisco Primary VLAN, HUAWEI Principal VLAN, and Group VLAN can receive the stream normally;


receive the stream normally;

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4. The interfaces belong to Cisco Primary VLAN, Community VLAN, Isolated VLAN, HUAWEI Group VLAN, and Separate VLAN can receive the stream normally;

5. The interfaces belong to Cisco Primary VLAN, Community VLAN, and HUAWEI Principal VLAN can receive the stream normally;

6. The interfaces belong to Cisco Primary VLAN and HUAWEI Principal VLAN can receive the stream normally.

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!

vlan 100 #configure Primary VLAN function

private-vlan primary

private-vlan association 10,20

end

!

interface FastEthernet0/4

description Port_4


switchport trunk allowed vlan 10,20,100


end

!

interface FastEthernet0/6 #define PVLAN Promiscuous interface, binding PVLAN

mapping relations

description Port_1

switchport private-vlan mapping 100 10,20

switchport mode private-vlan promiscuous

end

!

interface FastEthernet0/7 #define PVLAN host interface, binding PVLAN and

Community VLAN

description Port_2

switchport private-vlan host-association 100 10

switchport mode private-vlan host

end

!

interface FastEthernet0/8 #define PVLAN host interface, binding PVLAN and

Isolated VLAN

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description Port_3

switchport private-vlan host-association 100 20

switchport mode private-vlan host

end

HW-1 Configuration:

#

vlan 100 #configure MUX VLAN function

mux-vlan

subordinate separate 20

subordinate group 10

#

#


description Port_4


port trunk allow-pass vlan 10 20 100

#

#

interface GigabitEthernet0/0/5 #configure interface to add Principal VLAN, enable

MUX VLAN function

description Port_1

port link-type hybrid

port hybrid pvid vlan 100

port hybrid untagged vlan 100

port mux-vlan enable vlan 100

#

#

interface GigabitEthernet0/0/7 #configure interface to add Group VLAN, enable MUX

VLAN function

description Port_2





#

#

interface GigabitEthernet0/0/8 #configure interface to add Separate VLAN, enable

MUX VLAN function

description Port_3




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#


Signature by HUAWEI

3.1.4 LLDP

Test Item LLDP Function Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability test of

LLDP function.


Pre-conditions:



Test Procedure 1. Enable LLDP function on both device;

2. Check LLDP neighbor information on both devices, obtain the expected result 1.

Expected Result Check LLDP neighbor information on both devices, can show the detail LLDP

information.

Actual Result 1. Check LLDP neighbor information on both devices, can show the detail LLDP

information.

The LLDP information on HUAWEI:

The LLDP information on Cisco:

HW-1 Cisco-1

Port_1 Port_1

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!


description Port_1

end

!

lldp run

!

HW-1 Configuration:

#

lldp enable

#


description Port_1

#


Signature by

HUAWEI

3.2 Layer 2 Reliability

3.2.1 Layer 2 Ring Network Protocol

3.2.1.1 VBST and PVST+ Interoperability Test_Block Port on HUAWEI

Test Item VBST and PVST+ Interoperability Test and block port is on HUAWEI switch

Test Objective To validate that HUAWEI VBST and Cisco PVST+ can realize the interoperability

test and block port is on HUAWEI switch.

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Port_1 Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Cisco-1

Port_3Port_3

Port_1 Port_2

HW-2

Pre-conditions:



Test Procedure 1. Configure stp mode to be PVST+ on Cisco-1, configure Cisco-1 to be root bridge

of VLAN 1, 100;

2. Configure stp mode to be VBST on HW-1 and HW-2, the path cost method to be dot1d-1998 on both devices, configure HW-1 to be secondary root bridge;

3. Check stp status on Cisco and HUAWEI, obtain the expected result 1.

Expected Result Cisco-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_1 on HW-2.

Actual Result Cisco-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_1 on HW-2.

Cisco-1 is root bridge of VLAN 1 and VLAN 100:

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HW-1 VBST consider Cisco-1 as root bridge:

HW-2 VBST consider Cisco -1 as root bridge, according to the configuration, Port_1 on HW-2 is the block port of VLAN 1 and VLAN 100:

Shutdown HW- 1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:

VLAN 1 convergence time: 298630/10000=29.8s


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Configure stp no-agreement-check on interface:

VLAN 1 convergence time: 943/10000=94 ms


Undo Shutdown HW- 1 Port_2, observe the convergence time of VLAN 1 and VLAN

100:






Shutdown Cisco-1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:




VLAN 1 convergence time: 717/10000=71.7 ms


Undo shutdown Cisco-1 port 2, observe the convergence time of VLAN 1 and VLAN

100:

http://localhost:7890/pages/31185715/02/31185715/02/resources/s/stp_no-agreement-check.html



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VLAN 100convergence time: 294178/10000=29.4s



!

spanning-tree mode pvst

spanning-tree extend system-id

no spanning-tree vlan 129-200, 300, 400, 600

spanning-tree vlan 1, 100 priority 0

!

!


description Port_2


switchport trunk allowed vlan 1, 100


!


description Port_3




!

!


description Port_1





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spanning-tree portfast trunk

!

HW-1 Configuration:

#

stp mode vbst

stp pathcost-standard dot1d-1998

stp vlan 1 100 priority 4096

#

#


description Port_2



stp no-agreement-check

#


description Port_3



#


description Port_1



stp edged-port enable

#

HW-2 Configuration:

#

stp mode vbst


#


description Port_2




#


description Port_1





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#


Signature by HUAWEI

3.2.1.2 VBST and PVST+ Interoperability Test_Block Port on Cisco

Test Item VBST and PVST+ Interoperability Test and block port is on Cisco switch

Test Objective To validate that HUAWEI VBST and Cisco PVST+ can realize the interoperability test

and block port is on Cisco switch.


Port_1 Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Cisco-1

Port_3Port_3

Port_1 Port_2

HW-2

Pre-conditions:



Test Procedure 1. Configure stp mode to be VBST on HW-1 and HW-2, the path cost method to be

dot1d-1998 on both devices, configure HW-1 to be root bridge of VLAN 1 and VLAN

100;

2. Configure stp mode to be PVST+ on Cisco-1, configure Cisco-1 to be secondary root

bridge;


Expected Result HW-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_3 on Cisco-1.

Actual Result HW-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_3 on Cisco-1.

HW-1 is root bridge of VLAN 1 and VLAN 100:

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HW-2 VBST consider HW-1 as root bridge:

Cisco-1 PVST+ consider HW-1 as root bridge, according to the configuration, Port_3 on

Cisco-1 is the block port of VLAN 1 and VLAN 100:




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Undo Shutdown HW-1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:












Undo Shut down Cisco-1 Port_2, observe the convergence time of VLAN 1 and VLAN

100:




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!





!

!


description Port_2




!


description Port_3




!

!


description Port_1





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!

HW-1 Configuration:

#

stp mode vbst



#

#


description Port_2




#


description Port_3



#


description Port_1




#

HW-2 Configuration:

#

stp mode vbst


#


description Port_2




#


description Port_1





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#


Signature by HUAWEI

3.2.1.3 VBST and RPVST+ Interoperability Test_Block Port on HUAWEI

Test Item VBST and RPVST+ Interoperability Test and block port is on HUAWEI switch

Test Objective To validate that HUAWEI VBST and Cisco RPVST+ can realize the interoperability test

and block port is on HUAWEI switch.


Port_1 Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Cisco-1

Port_3Port_3

Port_1 Port_2

HW-2

Pre-conditions:



Test Procedure 1. Configure stp mode to be RPVST+ on Cisco-1, configure Cisco-1 to be root bridge of

VLAN 1, 100;

2. Configure stp mode to be VBST on HW-1 and HW-2, the path cost method to be

dot1d-1998 on both devices, configure the Port connected with Cisco-1 on HW-1 and

HW-2 to use common fast transition mechanism, configure HW-1 to be secondary root bridge;


Expected Result Cisco-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_1 on HW-2.

Actual Result Cisco-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_1 on HW-2.

Cisco-1 is root bridge of VLAN 1 and VLAN 100:

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HW-1 VBST consider Cisco-1 as root bridge:

HW-2 VBST consider Cisco -1 as root bridge, according to the configuration, Port_1 on HW-2 is the block port of VLAN 1 and VLAN 100:




Undo Shutdown HW- 1 Port_2, observe the convergence time of VLAN 1 and VLAN

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100:






Undo Shutdown Cisco-1 Port_2, observe the convergence time of VLAN 1 and VLAN

100:





!





!

!


description Port_2




!


description Port_3


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!

!


description Port_1





!

HW-1 Configuration:

#

stp mode vbst



#

#


description Port_2




#


description Port_3



#


description Port_1




#

HW-2 Configuration:

#

stp mode vbst


#



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description Port_2




#


description Port_1



#


Signature by HUAWEI

3.2.1.4 VBST and RPVST+ Interoperability Test_Block Port on Cisco

Test Item VBST and RPVST+ Interoperability Test and block port is on Cisco switch

Test Objective To validate that HUAWEI VBST and Cisco RPVST+ can realize the interoperability test

and block port is on Cisco switch.


Port_1 Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Cisco-1

Port_3Port_3

Port_1 Port_2

HW-2

Pre-conditions:



Test Procedure 1. Configure stp mode to be VBST on HW-1 and HW-2, the path cost method to be

dot1d-1998 on both devices, configure the Port connected with Cisco-1 on HW-1 and

HW-2 to use common fast transition mechanism, configure HW-1 to be root bridge of VLAN 1 and VLAN 100;


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2. Configure stp mode to be RPVST+ on Cisco-1, configure Cisco-1 to be secondary root bridge;


Expected Result HW-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_3 on Cisco-1.

Actual Result HW-1 is root bridge of VLAN 1 and VLAN 100, the block port is Port_3 on Cisco-1.

HW-1 is root bridge of VLAN 1 and VLAN 100:

HW-2 VBST consider HW-1 as root bridge:

Cisco-1 RPVST+ consider HW-1 as root bridge, according to the configuration, Port_3 on Cisco-1 is the block port of VLAN 1 and VLAN 100:

Shutdown HW-1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:

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Undo Shutdown HW-1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:






Undo Shutdown Cisco-1 Port_2, observe the convergence time of VLAN 1 and VLAN 100:





!





!

!


description Port_2

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!


description Port_3




!

!


description Port_1





!

HW-1 Configuration:

#

stp mode vbst



#

#


description Port_2




#


description Port_3



#


description Port_1





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#

HW-2 Configuration:

#

stp mode vbst


#


description Port_2




#


description Port_1



#


Signature by HUAWEI

3.2.1.5 MSTP and MST Interoperability Test

Test Item MSTP and MST Interoperability Test

Test Objective To validate that HUAWEI MSTP and Cisco MST can realize the interoperability test.


Port_1

Tport_1

HW-1 Cisco-1

Tester

HW-2

Port_2 Port_2

Port_3 Port_3

Port_1 Port_2

Port_1

Tport_2


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Pre-conditions:



Test Procedure 1. Configure stp mode to be MST on Cisco-1, add all ports to VLAN 10 and VLAN 20 in

trunk mode, map VLAN 10 to MST0, map VLAN 20 to MST1, configure Cisco-1 to be root bridge of MST0;

2. Configure stp mode to be MSTP on HW-1 and HW-2, add all ports to VLAN 10 and

VLAN 20 in trunk mode, map VLAN 10 to MST0, map VLAN 20 to MST1, configure

HW-1 to be root bridge of MST1, configure the path cost method to be dot1d-1998 on

both devices, configure the Port connected with Cisco-1 on HW-1 and HW-2 to use

common fast transition mechanism;

3. Check stp status on Cisco-1, obtain the expected result 1;

4. Check stp status on HW-1, obtain the expected result 2.

Expected Result 1. Cisco-1 is the root bridge of MST0, HW-1 is the root bridge of MST1, the block port

of MST1 is Port_3 on Cisco-1;

2. HW-1 is the root bridge of MST1, Cisco-1 is the root bridge of MST0, the block port of MST0 is Port_3 on HW-1.

Actual Result 1. Cisco-1 is the root bridge of MST0, HW-1 is the root bridge of MST1, the block port

of MST1 is Port_3 on Cisco-1;

2. HW-1 is the root bridge of MST1, Cisco-1 is the root bridge of MST0, the block port of MST0 is Port_3 on HW-1.

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!

spanning-tree mode mst


!

spanning-tree mst configuration

name test

instance 1 vlan 20

!

spanning-tree mst 0 priority 4096 #configure Cisco-1 to be root bridge of MST0

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!

vlan 10 20

!


description Port_2




!


description Port_1




spanning-tree portfast trunk #configure this port to be edge port

!


description Port_3




!

HW-1 Configuration:

#

vlan batch 10 20

#

stp instance 1 priority 4096 #configure HW-1 to be root bridge of MST1

stp bpdu-protection

stp pathcost-standard dot1d-1998 #configure path cost methodto be dot1d-1998

#

stp region-configuration

region-name test

instance 1 vlan 20

active region-configuration

#


description Port_1


port trunk allow-pass vlan 10 20

stp edged-port enable # configure this port to be edge port

#

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description Port_3



#


description Port_2



#

HW-2 Configuration:

#

vlan batch 10 20

#

stp bpdu-protection

stp pathcost-standard dot1d-1998# configure path cost method to be dot1d-1998

#


region-name test

instance 1 vlan 20


#


description Port_1



#


description Port_2



#


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HUAWEI

3.2.1.6 BPDU Guard Interoperability Test

Test Item BPDU Guard Interoperability Test

Test Objective To validate that HUAWEI and Cisco can realize the BPDU Guard interoperability test.

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Port_1

Tport_1

HW-1 Cisco-1

Tester

HW-2

Port_2 Port_2

Port_3 Port_3

Port_1 Port_2

Port_1

Tport_2

Pre-conditions:




trunk mode, map VLAN 10 to MST0, map VLAN 20 to MST1, configure Cisco-1 to be root bridge of MST0;



HW-1 to be root bridge of MST1, configure the path cost method to be dot1d-1998 on

both devices, configure the Port connected with Cisco-1 on HW-1 and HW-2 to use

common fast transition mechanism;

3. Configure BPDU Guard function on HW-2 and Cisco-1, configure Port_2 on HW-2 to be edge port, check the interface status, obtain the expected result 1;

4. Configure Port_3 on Cisco-1 to be edge port, check the interface status, obtain the expected result 2.

Expected Result 1. The Port_2 on HW-2 is configured to be edge port, Port_2 will receive BPDU packet,

BPDU Guard function will shutdown this interface;

2. The Port_3 on Cisco-1 is configured to be edge port, Port_3 will receive BPDU packet,

BPDU Guard function will shutdown this interface.

Actual Result 1. The Port_2 on HW-2 is configured to be edge port, Port_2 will receive BPDU packet,

BPDU Guard function will shutdown this interface;

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2. The Port_3 on Cisco-1 is configured to be edge port, Port_3 will receive BPDU packet,

BPDU Guard function will shutdown this interface.



!


spanning-tree portfast bpduguard default


!


name test

instance 1 vlan 20

!

spanning-tree mst 0 priority 4096 # configure Cisco-1 to be root bridge of MST0

!

vlan 10 20

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!


description Port_2




!


description Port_1




spanning-tree portfast trunk # configure this port to be edge port

!


description Port_3





!

HW-1 Configuration:

#

vlan batch 10 20

#

stp instance 1 priority 4096 # configure HW-1 to be root bridge of MST1

stp bpdu-protection

stp pathcost-standard dot1d-1998 # configure path cost method to be dot1d-1998

#


region-name test

instance 1 vlan 20


#


description Port_1




#


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description Port_3



#


description Port_2



#

HW-2 Configuration:

#

vlan batch 10 20

#

stp bpdu-protection


#


region-name test

instance 1 vlan 20


#


description Port_1



#


description Port_2




#


Signature by

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3.2.1.7 ROOT Guard Interoperability Test

Test Item ROOT Guard Interoperability Test

Test Objective To validate that HUAWEI and Cisco can realize the ROOT Guard interoperability test.

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Port_1

Tport_1

HW-1 Cisco-1

Tester

HW-2

Port_2 Port_2

Port_3 Port_3

Port_1 Port_2

Port_1

Tport_2

Pre-conditions:




trunk mode, map VLAN 10 to MST0, map VLAN 20 to MST1;



HW-1 to be root bridge of MST0 and MST1, configure the path cost method to be

dot1d-1998 on both devices, configure the Port connected with Cisco-1 on HW-1 and HW-2 to use common fast transition mechanism;

3. Enable root guard function on Port_2 and Port_3 on HW-1, then configure Cisco-1 to

be root bridge of MST0 and MST1, check MSTP status of HW-1, obtain the expected result 1.

Expected Result After enable root guard function on Port_2 and Port_3 on HW-1, then configure Cisco-1

to be root bridge of MST0 and MST1, then HW-1 designated port Port_2 and Port_3 will

receive BPDU packet with higher priority, root guard function will keep the port role still

to be designated port and set the stp state to be discarding.

Actual Result After enable root guard function on Port_2 and Port_3 on HW-1, then configure Cisco-1

to be root bridge of MST0 and MST1, then HW-1 designated port Port_2 and Port_3 will

receive BPDU packet with higher priority, root guard function will keep the port role still to be designated port and set the stp state to be discarding.

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!


spanning-tree portfast bpduguard default


!


name test

instance 1 vlan 20

!

vlan 10 20

!


description Port_2




!


description Port_1





!


description Port_3




!

HW-1 Configuration:

#

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vlan batch 10 20

#

stp instance 0priority 4096 # configure HW-1 to be root bridge of MST0

stp instance 1 priority 4096 # configure HW-1 to be root bridge of MST1

stp bpdu-protection

stp pathcost-standard dot1d-1998 # configure path cost method to be dot1d-1998

#


region-name test

instance 1 vlan 20


#


description Port_1




#


description Port_3



stp root-protection

#


description Port_2



stp root-protection

#

HW-2 Configuration:

#

vlan batch 10 20

#

stp bpdu-protection


#


region-name test

instance 1 vlan 20


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#


description Port_1



#


description Port_2



#


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3.2.2 Eth-OAM Interoperability Test

3.2.2.1 802.3ah Eth-OAM--EFM Function Interoperability Test

Test Item 802.3ah Eth-OAM Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of 802.3ah

Eth-OAM function.


Port_1

HW-1

Port_1

Cisco-1

TPort_1

Port_2

Tester

Port_2

TPort_2

Pre-conditions:



Test Procedure 1. Create VLAN and add the Port_1 to the same VLAN on both device;

2. Enable EFM function on HW-1, EFM mode to be passive, check the EFM status on HW-1, obtain the expected result 1;

3. Enable EFM function on Cisco-1, check the EFM status on HW-1 and Cisco-1, obtain the expected result 2;

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4. Disable EFM function on HW-1, check the EFM status on Cisco-1, obtain the expected result 3.

Expected Result 1. EFM session state on HW-1 is discovery;

2. EFM session state on HW-1 is detect, EFM information shown on Cisco is right;

3. EFM information shown on Cisco is empty.

Actual Result 1. EFM session state on HW-1 is discovery;

2. EFM session state on HW-1 is detect, EFM information shown on Cisco is right;

3. EFM information shown on Cisco is empty.



!

vlan 300

!


description Port_1

switchport



ethernet oam mode passive

ethernet oam

!

HW-1 Configuration:

#

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vlan 300

#

efm enable

#


description Port_2


undo port trunk allow-pass vlan 1


#


description Port_1



efm enable

#


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3.2.2.2 802.1ag Eth-OAM--CFM Function Interoperability Test

Test Item 802.1ag Eth-OAM Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of 802.1ag

Eth-OAM function.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:



Test Procedure 1. Create VLAN and add the Port_1 to the same VLAN on both device;

2. Configure CFM function on HW-1 and Cisco-1, check CFM information on both devices, obtain the expected result 1;

3. Test MAC Ping and MAC Trace function on Cisco-1, obtain the expected result 2.

Expected Result 1. CFM status on both devices is right;

2. MAC Ping and MAC Trace result on Cisco-1 is successfully.

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Actual Result 1. Check cfm configuration information on both device, the cfm status on HW-1 is UP;

Cisco-1 cfm domain information:

HW-1 cfm domain information:

Cisco-1 cfm status information:

HW-1 cfm status is UP:

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2. MAC Ping and MAC Trace result on Cisco-1 is successfully.

MAC Ping

MAC Trace:



!

vlan 603

!

ethernet cfm ieee

ethernet cfm global

ethernet cfm domain md1 level 3

service ma1 evc ma1 vlan 603 direction down

mep mpid 2

continuity-check

continuity-check interval 10s

!

ethernet evc ma1

!


description Port_1

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switchport



ethernet cfm mep domain md1 mpid 2 vlan 603

!

HW-1 Configuration:

#

vlan 603

#

cfm md md1 level 3

ma ma1

map vlan 603

ccm-interval 10000

mep mep-id 1 interface GigabitEthernet4/1/6 outward

mep ccm-send mep-id 1 enable

remote-mep mep-id 2

remote-mep ccm-receive mep-id 2 enable

#


description Port_1



#


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3.2.3 Link Aggregation Function Interoperability Test

3.2.3.1 Link Aggregation Function in LACP Mode

Test Item LACP Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of Link

Aggregation function in LACP mode.


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Port_1Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Port_3 Port_3

Cisco-1

Pre-conditions:



Test Procedure 1. Create Link Aggregation Group on Cisco-1 and HW-1, add Port_2 and Port_3 to Link

Aggregation Group on both devices, configure the mode to be LACP mode. Add Link

Aggregation Group to VLAN 601 in trunk mode;

2. Add Port_1 on both devices to VLAN 601;

3. Check Link Aggregation Group status, obtain the expected result 1;

4. Tester send bidirectional stream, check the Link Aggregation Group bandwidth, obtain the expected result 2;

5. Disconnect one active link, obtain the expected result 3.

Expected Result 1. The Link Aggregation Group is UP status;

2. Tester can receive two streams normally, the stream can load balance on two physical interfaces;

3. The stream can switchover to the active link normally.

Actual Result 1. The Link Aggregation Group is UP status:

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!

interface Port-channel4




!


description Port_2

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channel-protocol lacp

channel-group 4 mode active

!


description Port_3




channel-protocol lacp

channel-group 4 mode active

!

HW-1 Configuration:

#

interface Eth-Trunk1



mode lacp-static

load-balance src-mac

#


description Port_2

eth-trunk 1

#


description Port_3

eth-trunk 1

#


Signature by HUAWEI

3.2.3.2 Link Aggregation Function in Manual Mode

Test Item Manual Mode Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of Link

Aggregation function in Manual mode.


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Port_1Port_2

HW-1

Tport_1 Tport_2

Tester

Port_1Port_2

Port_3 Port_3

Cisco-1

Pre-conditions:



Test Procedure 1. Create Link Aggregation Group on Cisco-1 and HW-1, add Port_2 and Port_3 to Link

Aggregation Group on both devices, configure the mode to be manual mode. Add Link

Aggregation Group to VLAN 601 in trunk mode;

2. Add Port_1 on both devices to VLAN 601;

3. Check Link Aggregation Group status, obtain the expected result 1;

4. Tester send bidirectional stream, check the Link Aggregation Group bandwidth, obtain the expected result 2;

5. Disconnect one active link, obtain the expected result 3.

Expected Result 1. The Link Aggregation Group is UP status;



Actual Result 1. The Link Aggregation Group is UP status;

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2. Tester can receive two streams normally, the stream can load balance on two physical

interfaces;




!

interface Port-channel4




!


description Port_2


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channel-group 4 mode on

!


description Port_3




channel-group 4 mode on

!

HW-1 Configuration:

#

interface Eth-Trunk1



load-balance src-mac

#


description Port_2

eth-trunk 1

#


description Port_3

eth-trunk 1

#


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3.3 Layer 3 Function

3.3.1 IP Routing Interoperability Test

3.3.1.1 RIP Protocol Interoperability Test

Test Item RIP Basic Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of RIP

protocol.


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Port_2

HW-1

Port_2

Cisco-1

TPort_1

Port_1

Tester

Port_1

TPort_2

Pre-conditions:



Test Procedure 1. Create VLAN 3 and assign IP address for interface vlanif 3 on HW-1;

2. Create VLAN 3 and assign IP address for interface vlanif 3 on Cisco-1;

3. Configure the basic RIP function on HW-1;

4. Configure the basic RIP function on Cisco-1, check the RIP peer status, obtain the

expected result 1;

5. Tester sends the stream using 10 routes with line speed, obtain the expected result 2.

Expected Result 1. The RIP peer can establish successfully and RIP route information on both devices is

right;

2. The 10 routes can be advertised on both devices successfully, Tester can receive the stream with line speed and there is no packet loss.

Actual Result 1. The RIP peer can establish successfully and RIP route information on both devices is

right;

The rip route information on HW-1:

The rip route information on Cisco:

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2. The 10 routes can be advertised on both devices successfully, Tester can receive the stream with line speed and there is no packet loss.

The rip route information on HW-1:

The rip route information on Cisco-1:

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Tester can receive the stream with line speed and there is no packet loss:



!

ip address 200.1.1.1 255.255.255.0

!

interface Vlan3

ip address 192.168.3.1 255.255.255.0

!


switchport access vlan 3

switchport mode access

!

router rip

network 192.168.3.0

network 200.1.1.0

!

HW-1 Configuration:

#

interface LoopBack0

ip address 2.2.2.9 255.255.255.255

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#

interface Vlanif3

ip address 192.168.3.2 255.255.255.0

#


port link-type access

port default vlan 3

#

rip 1

network 2.0.0.0

network 192.168.3.0

#


Signature by HUAWEI

3.3.1.2 BGP Protocol Interoperability Test

Test Item BGP Basic Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of BGP

protocol.


Port_2

HW-1

Port_2

Cisco-1

TPort_1

Port_1

Tester

Port_1

TPort_2

Pre-conditions:





3. Configure the basic BGP function on HW-1;

4. Configure the basic BGP function on Cisco-1, obtain the expected result 1.

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Expected Result The BGP peer can establish successfully and BGP route information on both devices is

right.

Actual Result The BGP peer can establish successfully and BGP route information on both devices is

right.

The BGP peer on HW-1:

The BGP route information on HW-1:

The BGP peer on Cisco-1:

The BGP route information on Cisco-1:



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!

interface Vlan4

ip address 192.168.4.1 255.255.255.0

!




!

router bgp 65001

bgp log-neighbor-changes

neighbor 192.168.4.2 remote-as 55

no auto-summary

!

HW-1 Configuration:

#

interface Vlanif4

ip address 192.168.4.2 255.255.255.0

#



port default vlan 4

#

bgp 55

router-id 1.1.1.2

peer 192.168.4.1 as-number 65001

#

ipv4-family unicast

undo synchronization

import-route direct

peer 192.168.4.1 enable

#


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3.3.1.3 ISIS Protocol Interoperability Test

Test Item ISIS Basic Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of ISIS

protocol.

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Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:



Test Procedure 1. Create VLAN 200 and assign IP address for interface vlanif 200 on HW-1 and

Cisco-1;

2. Configure the basic ISIS function on HW-1 and Cisco-1, obtain the expected result 1.

Expected Result The ISIS neighbors can establish successfully on both device.

Actual Result The ISIS neighbors can establish successfully on both device

The ISIS neighbor information on Cisco-1:

The ISIS neighbor information on HW-1:



!

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interface GigabitEthernet 7/11

description Port_1

ip address 200.1.1.2 255.255.255.0

ip router isis 200

!

router isis 200

net 10.0000.0000.0002.00

is-type level-2-only

HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

isis enable 200

isis authentication-mode md5 N`C55QK<`=/Q=^Q`MAF4<1!! level-2

#

interface GigabitEthernet 4/1/10

description Port_1


port default vlan 200

#

isis 200

is-level level-2

network-entity 10.0000.0000.0001.00

#


Signature by HUAWEI

3.3.1.4 ISIS MD5 Authentication Interoperability Test

Test Item ISIS MD5 Authentication Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of ISIS

MD5 Authentication test.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:


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Test Procedure 1. Create VLAN 200 and assign IP address for interface vlanif 200 on HW-1 and

Cisco-1;

2. Configure the basic ISIS function on HW-1 and Cisco-1;

3. Configure ISIS MD5 authentication on interfaces on HW-1 and Cisco-1;

4. Check ISIS neighbor information on HW-1 and Cisco-1, obtain the expected result 1.

Expected Result The ISIS neighbors can establish successfully on both device.

Actual Result The ISIS neighbors can establish successfully on both device.

The ISIS neighbor information on Cisco-1:

The ISIS neighbor information on HW-1:



!


description Port_1

ip address 200.1.1.2 255.255.255.0

ip router isis 200

isis authentication mode md5

isis authentication key-chain HUAWEI

isis authentication send-only

!

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router isis 200

net 10.0000.0000.0002.00


HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

isis enable 200

isis authentication-mode md5 N`C55QK<`=/Q=^Q`MAF4<1!! send-only

#


description Port_1



#

isis 200

is-level level-2

network-entity 10.0000.0000.0001.00

#


Signature by HUAWEI

3.3.1.5 OSPF Protocol Interoperability Test

Test Item OSPF Basic Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of OSPF

protocol.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:



Test Procedure 1. Create VLAN 200 and add Port_1 to VLAN 200 on both devices;

2. Assign IP address for interface vlanif 200 on HW-1 and Cisco-1;

3. Configure Router ID=200.1.1.1, create OSPF process 1 on HW-1 and advertise the

network route;

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4. Configure Router ID=200.1.1.2, create OSPF process 1 on Cisco-1 and advertise the network route;

5. Check OSPF neighbors on both devices, obtain the expected result 1.

Expected Result The OSPF neighbors can establish successfully on both devices.

Actual Result The OSPF neighbors can establish successfully on both devices.

The OSPF neighbor information on Cisco-1:

The OSPF neighbor information on HW-1:



!


description Port_1



!

interface Vlan200

ip address 200.1.1.2 255.255.255.0

!

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router ospf 1

router-id 200.1.1.2

network 200.1.1.0 0.0.0.255 area 0

HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

#


description Port_1



#

ospf 1 router-id 200.1.1.1

area 0.0.0.0

network 200.1.1.0 0.0.0.255

#


Signature by HUAWEI

3.3.1.6 OSPF MD5 Authentication Interoperability Test

Test Item OSPF MD5 Authentication Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of OSPF

MD5 Authentication test.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:





3. Configure Router ID=200.1.1.1, create OSPF process 1 on HW-1 and advertise the network route;

4. Configure Router ID=200.1.1.2, create OSPF process 1 on Cisco-1 and advertise the

network route;

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5. Configure OSPF MD5 authentication on OSPF area;

6. Check OSPF neighbor on HW-1 and Cisco-1, obtain the expected result 1;

7. Disable OSPF MD5 authentication on OSPF area, enable OSPF MD5 authentication on interfaces;

8. Check OSPF neighbor on HW-1 and Cisco-1, obtain the expected result 1.

Expected Result The OSPF neighbors can establish successfully on both devices.

Actual Result The OSPF neighbors can establish successfully on both devices.

The OSPF neighbor information on Cisco-1:

The OSPF neighbor information on HW-1:


OSPF MD5 authentication on OSPF area:


!


description Port_1



!

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interface Vlan200

ip address 200.1.1.2 255.255.255.0

ip ospf message-digest-key 1 md5 HUAWEI

!

router ospf 1

router-id 200.1.1.2

area 0 authentication message-digest

network 200.1.1.0 0.0.0.255 area 0

HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

#


description Port_1



#


area 0.0.0.0

authentication-mode md5 1 cipher Vv.-9m|l}:=H)H2[EInBVir#

network 200.1.1.0 0.0.0.255

#

OSPF MD5 authentication on interface:


!


description Port_1



!

interface Vlan200

ip address 200.1.1.2 255.255.255.0

ip ospf authentication message-digest

ip ospf message-digest-key 1 md5 HUAWEI

!

router ospf 1

router-id 200.1.1.2

network 200.1.1.0 0.0.0.255 area 0

HW-1 Configuration:

#

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interface Vlanif200

ip address 200.1.1.1 255.255.255.0

ospf authentication-mode md5 1 cipher }[b}4u(G<FjKUGU-KkpBz1K#

#


description Port_1



#


area 0.0.0.0

network 200.1.1.0 0.0.0.255

#


Signature by HUAWEI

3.3.2 NTP Function

3.3.2.1 NTP Client Interoperability Test

Test Item NTP Client Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of NTP

client function.


Pre-conditions:



Test Procedure 1. Create VLAN and assign IP address for VLAN interface on both devices to make route

reachable;

2. Specify the local clock of Cisco-1 as the primary clock;

3. Configure Cisco-1 as the Unicast NTP server on HW-1, check NTP status, obtain the expected result 1;

4. Configure HW-1 as NTP broadcast client on VLAN interface, configure Cisco-1 as the

NTP broadcast server on VLAN interface, check NTP status, obtain the expected result 1;

HW-1 Cisco-1

Port_1 Port_1

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5. Configure HW-1 as NTP multicast client on VLAN interface, configure Cisco-1 as the

NTP multicast server on VLAN interface, check NTP status, obtain the expected result

1.

Expected Result NTP clock status is "synchronized", indicating that the synchronization is complete.

Actual Result NTP clock status is "synchronized", indicating that the synchronization is complete.

a. NTP status on Cisco-1 shows the reference clock is LOCAL:

b. NTP status on HW-1 shows NTP clock status is "synchronized":


Unicast Mode


!

ntp master 2

!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

end

!

HW-1 Configuration:

#

ntp-service unicast-server 100.1.1.2

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

#


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description Port_1



#

Broadcast Mode


!

ntp master 2

!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

ntp broadcast

!

HW-1 Configuration:

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

ntp-service broadcast-client

#


description Port_1



#

Multicast Mode


!

ntp master 2

!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

ntp multicast

!

HW-1 Configuration:

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

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ntp-service multicast-client

#


description Port_1



#


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HUAWEI

3.3.2.2 NTP Server Interoperability Test

Test Item NTP Server Interoperability Test


server function.


Pre-conditions:




reachable;

2. Specify the local clock of HW-1 as the primary clock;

3. Configure HW-1 as the Unicast NTP server on Cisoc-1, check NTP status, obtain the expected result 1;

4. Configure Cisco-1 as NTP broadcast client on VLAN interface, configure HW-1 as the

NTP broadcast server on VLAN interface, check NTP status, obtain the expected result

1;

5. Configure Cisco-1 as NTP multicast client on VLAN interface, configure HW-1 as the

NTP multicast server on VLAN interface, check NTP status, obtain the expected result 1.



a. NTP status on Cisco-1 shows the reference clock is NTP server clock:

HW-1 Cisco-1

Port_1 Port_1

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b. NTP status on HW-1 shows NTP clock status is "synchronized", the synchronized clock is local:


Unicast Mode


!

ntp server 100.1.1.1

!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

end

!

HW-1 Configuration:

#

ntp-service refclock-master 2

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

#


description Port_1



#

Broadcast Mode


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!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

ntp broadcast client

ntp broadcast

!

HW-1 Configuration:

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

ntp-service broadcast-server

#


description Port_1



#

Multicast Mode


!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

ntp multicast client

ntp multicast

!

HW-1 Configuration:

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

ntp-service multicast-server

#


description Port_1



#

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3.3.2.3 NTP Authentication Interoperability Test

Test Item NTP Authentication Interoperability Test


authentication function.


Pre-conditions:




reachable;

2. Specify the local clock of HW-1 as the primary clock, set the clock stratum, enable the NTP authentication function, configure the authentication key 100 to be HUAWEI;

3. Configure HW-1 as the Unicast NTP server on Cisoc-1, enable the NTP authentication function, configure the wrong authentication key, obtain the expected result 1;

4. Configure the right authentication key on Cisco-1, obtain the expected result 2.



a. When the authentication key is wrong, the NTP status on Cisco-1 shows NTP clock

status is "unsynchronized":

b. When the authentication key is right, the NTP status on Cisco-1 shows NTP clock status is "synchronized":

HW-1 Cisco-1

Port_1 Port_1

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c. NTP status on HW-1 shows NTP clock status is "synchronized", the synchronized clock is local:


Unicast Mode


!

ntp server 100.1.1.1

!


description Port_1

no switchport

ip address 100.1.1.2 255.255.255.0

end

!

ntp authentication-key 100 md5 11010C04001702 7

ntp authenticate

ntp trusted-key 100

ntp server 100.1.1.1 key 100

!

HW-1 Configuration:

#

ntp-service authentication enable

ntp-service authentication-keyid 100 authentication-mode md5 N`C55QK<`=/Q=^Q`MA

F4<1!!

ntp-service refclock-master 2

#

interface Vlanif100

ip address 100.1.1.1 255.255.255.0

#

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description Port_1



#


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3.3.3 MPLS VPN Interoperability Test

3.3.3.1 L3VPN Interoperability Test

Test Item L3VPN Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of L3VPN

function.


Pre-conditions:



Test Procedure 1. Configure IGP protocol, configure MPLS basic function and MPLS LDP between

HW-1 and Cisco-1, configure BGP and VRF;

2. Check private network route, validate IP routing reachable, obtain the expected result 1, 2, 3.

Expected Result 1. The remote PE loopback route can be seen normally, LDP session status is right, the

BGP peer can be established normally;

2. The remote private network route can be seen on Cisco-1, Tester as CEs can ping each

other successfully;

3. The Tester port connected with Cisco-1 advertises the route, the routes imported to

HW-1 Cisco-1

Port_2 Port_2Port_1 Port_1

Tport_1 Tport_2

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private network instance. The private network route can be seen on HW-1 vpn

instance. The Tester port connected with HW-1 send streams to private network route,

the stream can be received normally.

Actual Result 1. The remote PE loopback route can be seen normally, LDP session status is right, the

BGP peer can be established normally;

a. The LDP session status:

b. The BGP peer information:

2. The remote private network route can be seen on Cisco-1, Tester as CEs can ping each other successfully;

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a. The IP routing table of wy instance on Cisco-1:

b. Tester as CEs can ping each other successfully:

3. The Tester port connected with Cisco-1 advertises the route, the routes imported to

private network instance. The private network route can be seen on HW-1 vpn

instance. The Tester port connected with HW-1 send streams to private network route, the stream can be received normally.

a. The Tester port connected with Cisco-1 simulate BGP router to advertises the route, import 5 BGP route, check routing-table of VPN instance on HW-1:

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b. The Tester port connected with HW-1 send streams to private network route, the

stream can be received normally:


HW-1 Configuration:

#

ip vpn-instance wy

route-distinguisher 100:1

vpn-target 1:1 export-extcommunity

vpn-target 1:1 import-extcommunity

#

mpls lsr-id 3.3.3.3

mpls

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label advertise non-null

lsp-trigger all

#

mpls ldp

outbound peer all split-horizon

#

interface Vlanif210

ip address 21.0.0.2 255.255.255.0

mpls

mpls ldp

#

interface Vlanif230

ip binding vpn-instance wy

ip address 23.0.0.1 255.255.255.0

#


description Port_2




#


description Port_1




#

interface LoopBack0

ip address 3.3.3.3 255.255.255.255

#

bgp 100

peer 4.4.4.4 as-number 100

peer 4.4.4.4 connect-interface LoopBack0

#

ipv4-family unicast


peer 4.4.4.4 enable

#

ipv4-family vpnv4

policy vpn-target

peer 4.4.4.4 enable

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#

ipv4-family vpn-instance wy

import-route direct

peer 23.0.0.2 as-number 65001

#

ospf 1

area 0.0.0.0

network 3.3.3.3 0.0.0.0

network 21.0.0.0 0.0.0.255

#


!

ip vrf wy

rd 100:1

route-target export 1:1

route-target import 1:1

!

Mpls ip

mpls label protocol ldp

!

interface Loopback0

ip address 4.4.4.4 255.255.255.255

!


description Port_2

switchport



!


description Port_1

switchport



!

interface Vlan210

ip address 21.0.0.1 255.255.255.0

mpls ip

!

interface Vlan220

ip vrf forwarding wy

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ip address 22.0.0.1 255.255.255.0

!

router ospf 1

router-id 4.4.4.4

log-adjacency-changes

network 4.4.4.4 0.0.0.0 area 0

network 21.0.0.0 0.0.0.255 area 0

!

router bgp 100

no synchronization



neighbor 3.3.3.3 update-source Loopback0

no auto-summary

!

address-family vpnv4

neighbor 3.3.3.3 activate

neighbor 3.3.3.3 send-community extended

exit-address-family

!

address-family ipv4 vrf wy

redistribute connected


neighbor 22.0.0.2 activate

no synchronization

exit-address-family

!

mpls ldp router-id Loopback0 force

!


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3.3.3.2 VLL Interoperability Test

Test Item VLL Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of VLL

function.


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Pre-conditions:



Test Procedure 1. Configure IGP protocol on both devices to make IGP routing reachable;

2. Configure MPLS basic function and LDP on both devices, check MPLS forwarding

table, obtain the expected result 1;

3. Enable MPLS L2VPN and create L2VC function, check L2VC status, obtain the expected result 2;

4. Tester Tport_1 and Tport_2 simulate two hosts as CEs to ping each other, obtain the expected result 3.

Expected Result 1. MPLS LDP and LSP work normally;

2. The L2VC status is UP;

3. Two CEs can ping each other successfully, the bidirectional unicast stream can be received normally.

Actual Result 1. MPLS LDP and LSP work normally;

a. The LDP SESSION status:

HW-1 Cisco-1


Tport_1 Tport_2

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2. The L2VC status is UP;


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The bidirectional unicast stream can be received normally:


HW-1 Configuration:

#

mpls lsr-id 3.3.3.3

mpls


lsp-trigger all

#

mpls l2vpn

mpls l2vpn default martini

#

mpls ldp

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#

mpls ldp remote-peer 4.4.4.4

remote-ip 4.4.4.4

undo remote-ip pwe3

#

interface Vlanif210

ip address 21.0.0.2 255.255.255.0

mpls

mpls ldp

#

interface Vlanif230

mpls l2vc 4.4.4.4 100

#


description Port_2




#


description Port_1




#

interface LoopBack0

ip address 3.3.3.3 255.255.255.255

#

ospf 1

area 0.0.0.0

network 3.3.3.3 0.0.0.0

network 21.0.0.0 0.0.0.255

#


!

Mpls ip

mpls ldp neighbor 3.3.3.3 targeted ldp


!

interface Loopback0

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ip address 4.4.4.4 255.255.255.255

!


description Port_2

switchport



!


description Port_1

!

interface GigabitEthernet1/7/20.1

encapsulation dot1Q 220

xconnect 3.3.3.3 100 encapsulation mpls

!

interface Vlan210

ip address 21.0.0.1 255.255.255.0

mpls ip

!

router ospf 1

router-id 4.4.4.4


network 4.4.4.4 0.0.0.0 area 0

network 21.0.0.0 0.0.0.255 area 0

!


!


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3.3.3.3 VPLS Interoperability Test

Test Item VPLS Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of VPLS

function.


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Pre-conditions:



Test Procedure 1. Configure IGP protocol on both devices to make IGP routing reachable;

2. Configure MPLS basic function and LDP on both devices, check MPLS forwarding

table, obtain the expected result 1;

3. Enable MPLS L2VPN and configure VPLS VSI function, check VPLS VSI status, obtain the expected result 2;

4. Tester Tport_1 and Tport_2 simulate two hosts as CEs to ping each other, obtain the expected result 3.

Expected Result 1. The MPLS LDP and LSP work normally;

2. The VSI status is UP;


Actual Result 1. The MPLS LDP and LSP work normally;

The LDP SESSION status:

HW-1 Cisco-1


Tport_1 Tport_2

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2. The VSI status is UP;

3. Two CEs can ping each other successfully, the bidirectional unicast stream can be

received normally.

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The bidirectional unicast stream can be received normally:


HW-1 Configuration:

#

mpls lsr-id 3.3.3.3

mpls


lsp-trigger all

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#

mpls l2vpn

#

mpls ldp


#

mpls ldp remote-peer 4.4.4.4

remote-ip 4.4.4.4

undo remote-ip pwe3

#

vsi wy static

pwsignal ldp

vsi-id 100

peer 4.4.4.4

#

interface Vlanif210

ip address 21.0.0.2 255.255.255.0

mpls

mpls ldp

#

interface Vlanif220

l2 binding vsi wy

#


description Port_2




#


description Port_1




#

interface LoopBack0

ip address 3.3.3.3 255.255.255.255

#

ospf 1

area 0.0.0.0

network 3.3.3.3 0.0.0.0

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network 21.0.0.0 0.0.0.255

#


!

Mpls ip

mpls ldp neighbor 3.3.3.3 targeted ldp


!

l2 vfi wy manual

vpn id 100

neighbor 3.3.3.3 encapsulation mpls

!

interface Loopback0

ip address 4.4.4.4 255.255.255.255

!


description Port_2

switchport



!


description Port_1

switchport



!

interface Vlan210

ip address 21.0.0.1 255.255.255.0

mpls ip

!

interface Vlan220

no ip address

xconnect vfi wy

!

router ospf 1

router-id 4.4.4.4


network 4.4.4.4 0.0.0.0 area 0

network 21.0.0.0 0.0.0.255 area 0

!

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!


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3.3.4 Layer 3 Reliability Interoperability Test

3.3.4.1 BFD for RIP Protocol Interoperability Test

Test Item BFD for RIP Protocol Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of BFD for

RIP protocol function.


Port_2

HW-1

Port_2

Cisco-1

TPort_1

Port_1

Tester

Port_1

TPort_2

Pre-conditions:





3. Configure basic RIP function on HW-1 and Cisco-1, obtain the expected result 1;

4. Configure BFD function on HW-1 and Cisco-1, obtain the expected result 2.

Expected Result 1. The RIP neighbor can be established on both devices;

2. The BFD for RIP status on both devices is right.

Actual Result 1. The RIP neighbor can be established on both devices;

The RIP neighbor on HW-1:

The RIP neighbor on Cisco-1:

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2. The BFD for RIP status on both devices is right.

The BFD for RIP status on HW-1:

The BFD for RIP status on Cisoc-1:



!


ip address 192.168.51.1 255.255.255.0

bfd interval 100 min_rx 100 multiplier 3

!

router rip

version 2

network 2.0.0.0

network 192.168.51.0

neighbor 192.168.51.2 bfd

bfd all-interfaces

!

HW-1 Configuration:

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#

bfd

#

interface LoopBack0

ip address 1.1.51.2 255.255.255.255

#

interface Vlanif51

ip address 192.168.51.2 255.255.255.0

#




#

rip 1

version 2

network 192.168.51.0

network 1.0.0.0

bfd all-interfaces enable

bfd all-interfaces min-tx-interval 100 min-rx-interval 100

#


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3.3.4.2 BFD for OSPF Protocol Interoperability Test

Test Item BFD for OSPF Protocol Interoperability Test


OSPF protocol function.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:





3. Configure Router ID=200.1.1.1, create OSPF process 1 on HW-1 and advertise the

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network route;

4. Configure Router ID=200.1.1.2, create OSPF process 1 on Cisco-1 and advertise the network route;

5. Configure BFD for OSPF on HW-1 and Cisco-1;

6. Check OSPF neighbors on both devices, obtain the expected result 1;

7. Check BFD session status on both devices, obtain the expected result 2.

Expected Result 1. OSPF neighbors can be established on both devices successfully;

2. BFD session status on both devices is right.

Actual Result 1. OSPF neighbors can be established on both devices successfully;

The OSPF neighbor on Cisoc-1:

The OSPF neighbor on HW-1:


The BFD session status on Cisco-1:

The BFD session status on HW-1:

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!


description Port_1

ip address 200.1.1.2 255.255.255.0


!

router ospf 1

router-id 200.1.1.2

network 200.1.1.0 0.0.0.255 area 0

bfd all-interfaces

HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

#


description Port_1



#




area 0.0.0.0

network 200.1.1.0 0.0.0.255

2015-11-10 of 117

#


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3.3.4.3 BFD for ISIS Protocol Interoperability Test

Test Item BFD for ISIS Protocol Interoperability Test


ISIS protocol function.


Port_1

HW-1

Port_1

Cisco-1

Pre-conditions:





3. Configure basic ISIS function on HW-1 and Cisco-1;

4. Configure BFD for ISIS function on HW-1 and Cisco-1;

5. Check ISIS neighbors on both devices, obtain the expected result 1;

6. Check BFD session status on both devices, obtain the expected result 2.

Expected Result 1. ISIS neighbors can be established on both devices successfully;


Actual Result 1. ISIS neighbors can be established on both devices successfully;

The ISIS neighbor on Cisco-1:

The ISIS neighbor on HW-1:



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!


description Port_1

ip address 200.1.1.2 255.255.255.0

ip router isis 200


!

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router isis 200

net 10.0000.0000.0002.00


bfd all-interfaces

HW-1 Configuration:

#

interface Vlanif200

ip address 200.1.1.1 255.255.255.0

isis enable 200

isis authentication-mode md5 N`C55QK<`=/Q=^Q`MAF4<1!! level-2

#


description Port_1



#

isis 200

is-level level-2

network-entity 10.0000.0000.0001.00



#


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3.3.4.4 BFD for BGP Protocol Interoperability Test

Test Item BFD for BGP Protocol Interoperability Test


BGP protocol function.


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Port_2

HW-1

Port_2

Cisco-1

TPort_1

Port_1

Tester

Port_1

TPort_2

Pre-conditions:




2. Create Layer 3 interface and assign IP address for this interface on Cisco-1;

3. Configure basic BGP function on HW-1 and Cisco-1, obtain the expected result 1;

4. Configure BFD function on HW-1 and Cisco-1, obtain the expected result 2.

Expected Result 1. BGP neighbors can be established on both devices successfully;


Actual Result 1. BGP neighbors can be established on both devices successfully;

The BGP neighbor on HW-1:

The BGP neighbor on Cisco-1:



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!


no switchport

ip address 192.168.24.1 255.255.255.0


!

router bgp 100

no synchronization



neighbor 192.168.24.2 fall-over bfd

no auto-summary

!

HW-1 Configuration:

#

interface Vlanif24

ip address 192.168.24.2 255.255.255.0

#




#

bgp 101

peer 192.168.24.1 as-number 100

peer 192.168.24.1 bfd min-tx-interval 100 min-rx-interval 100

peer 192.168.24.1 bfd enable

#

ipv4-family unicast


peer 192.168.24.1 enable

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#


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3.3.4.5 VRRP Interoperability Test

Test Item VRRP Interoperability Test

Test Objective To validate that HUAWEI and Cisco switches can realize the interoperability of VRRP

function.


Port_1Port_2

Cisco-1

Tport_1

Port_1

HW-1

Port_2Port_3

Port_1 Port_2

HW-2

Tester

Port_3

Tport_2

Pre-conditions:



Test Procedure 1. Add Cisco-1 Port_3, HW-1 Port_2, HW-2 Port_1 and Port_2 to the same VLAN;

2. Add Cisco-1 Port_2 and HW-1 Port_1 to the same VLAN, assign IP address for VLAN interface;

3. Add Cisco Port_1 to another VLAN, assign IP address for VLAN interface;

4. Create VRRP group between Cisco-1 and HW-1, configure VRRP priority higher than the default value;

5. Create OSPF protocol between Cisco-1 and HW-1 to make routing reachable;

6. Check VRRP status on Cisco-1 and HW-1, obtain the expected result 1;

7. Tester send bidirectional stream, obtain the expected result 2;

8. Disconnect HW-1 Port_2, check VRRP status on Cisco-1, obtain the expected result 3;

9. Connect HW-1 Port_2, check VRRP status on Cisco-1 and HW-1, obtain the expected

result 4.

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Expected Result 1. Cisco-1 is VRRP backup, HW-1 is VRRP master;

2. The stream can be forwarded normally, there is no packet loss;

3. Cisco-1 is VRRP master, VRRP shift successfully, the packet loss is under the expectation;

4. HW-1 is VRRP master, Cisco-1 is VRRP backup, the packet loss is under expectation.

Actual Result 1. Cisco-1 is VRRP backup, HW-1 is VRRP master;

2. The stream can be forwarded normally, there is no packet loss;

3. Cisco-1 is VRRP master, VRRP shift successfully, the packet loss is under the expectation;

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The packet loss is: 26.18S

4. HW-1 is VRRP master, Cisco-1 is VRRP backup, the packet loss is under expectation.

The packet loss is: 34 ms



!

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vlan 610-612

!


description Port_2




!


description Port_3




!


description Port_1




!

interface Vlan610

ip address 110.1.1.2 255.255.255.0

!

interface Vlan611

ip address 120.1.1.2 255.255.255.0

vrrp 1 ip 120.1.1.100 //the default priority value is 100

!

interface Vlan612

ip address 130.1.1.1 255.255.255.0

!

router ospf 100

router-id 120.1.1.2

network 110.1.1.0 0.0.0.255 area 0

network 120.1.1.0 0.0.0.255 area 0

network 130.1.1.0 0.0.0.255 area 0

!

HW-1 Configuration:

#

vlan batch 610 to 611

#

interface Vlanif610

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ip address 110.1.1.1 255.255.255.0

#

interface Vlanif611

ip address 120.1.1.1 255.255.255.0

vrrp vrid 1 virtual-ip 120.1.1.100

vrrp vrid 1 priority 150

#


description Port_1



#


description Port_2



#

ospf 100

area 0.0.0.0

network 120.1.1.0 0.0.0.255

network 110.1.1.0 0.0.0.255

#

HW-2 Configuration:

#


description Port_1



#


description Port_2



#


description Port_3



#


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