15-Non-IP Architecture Command

Table of Contents

Chapter 1 OSI Layer 2 Configuration Commands. 1-1

1.1 OSI Layer 2 Configuration Commands. 1-1

1.1.1 debugging hdlc clns. 1-1

1.1.2 display atm map-info. 1-1

1.1.3 display fr map-info. 1-3

1.1.4 display x25 map. 1-3

1.1.5 display x25 vc. 1-5

1.1.6 fr map clns. 1-7

1.1.7 map clns. 1-8

1.1.8 x25 default-protocol 1-8

1.1.9 x25 map clns. 1-9

1.1.10 x25 pvc. 1-11

Chapter 2 OSI Layer 3 Configuration Commands. 2-1

2.1 OSI Layer 3 Configuration Commands. 2-1

2.1.1 clns enable. 2-1

2.1.2 clns erpacket enable. 2-1

2.1.3 clns erpacket interval 2-2

2.1.4 clns es-peer 2-3

2.1.5 clns net 2-3

2.1.6 clns rdpacket enable. 2-4

2.1.7 clns rdpacket interval 2-5

2.1.8 clns route-static. 2-5

2.1.9 clns timer rdpacket holding. 2-6

2.1.10 debugging clns echo. 2-7

2.1.11 debugging clns clnp. 2-8

2.1.12 debugging clns rd. 2-8

2.1.13 debugging clns routing. 2-9

2.1.14 debugging isis es-adjacency. 2-9

2.1.15 debugging isis is-adjacency. 2-10

2.1.16 debugging esis. 2-10

2.1.17 display clns. 2-11

2.1.18 display isis routing clns. 2-12

2.1.19 display clns interface. 2-13

2.1.20 display clns routing-table. 2-14

2.1.21 display clns statistics. 2-18

2.1.22 display esis. 2-20

2.1.23 display esis interface. 2-21

2.1.24 display esis peer 2-21

2.1.25 display esis statistics. 2-22

2.1.26 esis. 2-23

2.1.27 esis enable. 2-24

2.1.28 isis enable clns. 2-24

2.1.29 ping clns. 2-26

2.1.30 preference clns. 2-26

2.1.31 reset clns statistics. 2-27

2.1.32 reset esis statistics. 2-28

2.1.33 timer configuration. 2-28

2.1.34 timer holding. 2-29

2.1.35 tracert clns. 2-30

Chapter 3 IPX Configuration Commands. 3-1

3.1 IPX Configuration Commands. 3-1

3.1.1 debugging ipx packet 3-1

3.1.2 debugging ipx ping. 3-2

3.1.3 debugging ipx rip. 3-3

3.1.4 debugging ipx rtpro-flash. 3-4

3.1.5 debugging ipx rtpro-interface. 3-5

3.1.6 debugging ipx rtpro-routing. 3-6

3.1.7 debugging ipx sap packet 3-7

3.1.8 display ipx interface. 3-9

3.1.9 display ipx routing-table. 3-11

3.1.10 display ipx routing-table statistics. 3-14

3.1.11 display ipx service-table. 3-14

3.1.12 display ipx statistics. 3-16

3.1.13 ipx enable. 3-18

3.1.14 ipx encapsulation. 3-19

3.1.15 ipx netbios-propagation. 3-20

3.1.16 ipx network. 3-21

3.1.17 ipx rip import-route. 3-21

3.1.18 ipx rip mtu. 3-22

3.1.19 ipx rip multiplier 3-23

3.1.20 ipx rip timer update. 3-23

3.1.21 ipx route-static. 3-24

3.1.22 ipx route load-balance-path. 3-26

3.1.23 ipx route max-reserve-path. 3-26

3.1.24 ipx sap disable. 3-27

3.1.25 ipx sap gns-disable-reply. 3-28

3.1.26 ipx sap gns-load-balance. 3-28

3.1.27 ipx sap max-reserve-servers. 3-29

3.1.28 ipx sap mtu. 3-30

3.1.29 ipx sap multiplier 3-30

3.1.30 ipx sap timer update. 3-31

3.1.31 ipx service. 3-32

3.1.32 ipx split-horizon. 3-33

3.1.33 ipx tick. 3-33

3.1.34 ipx update-change-only. 3-34

3.1.35 ping ipx. 3-35

3.1.36 reset ipx statistics. 3-36

3.1.37 reset ipx routing-table statistics. 3-36

Chapter 4 DLSw Configuration Commands. 4-1

4.1 DLSw1.0 Configuration Commands. 4-1

4.1.1 bridge-set (in synchronous serial interface view) 4-1

4.1.2 bridge-set (in Ethernet Interface view) 4-2

4.1.3 code nrzi 4-2

4.1.4 debugging dlsw. 4-3

4.1.5 debugging dlsw packet 4-4

4.1.6 debugging llc2. 4-5

4.1.7 debugging llc2 packet 4-6

4.1.8 debugging sdlc. 4-7

4.1.9 display dlsw bridge-entry. 4-7

4.1.10 display dlsw circuits. 4-8

4.1.11 display dlsw information. 4-9

4.1.12 display dlsw remote. 4-10

4.1.13 display dlsw reachable-cache. 4-11

4.1.14 display llc2. 4-12

4.1.15 dlsw bridge-set 4-13

4.1.16 dlsw enable. 4-13

4.1.17 dlsw local 4-14

4.1.18 dlsw reachable. 4-15

4.1.19 dlsw reachable-cache. 4-16

4.1.20 dlsw remote. 4-17

4.1.21 dlsw timer 4-18

4.1.22 idle-mark. 4-19

4.1.23 link-protocol sdlc. 4-20

4.1.24 llc2 max-ack. 4-21

4.1.25 llc2 max-send-queue. 4-21

4.1.26 llc2 max-transmission. 4-22

4.1.27 llc2 modulo. 4-22

4.1.28 llc2 receive-window. 4-23

4.1.29 llc2 timer ack. 4-24

4.1.30 llc2 timer ack-delay. 4-24

4.1.31 llc2 timer busy. 4-25

4.1.32 llc2 timer poll 4-26

4.1.33 llc2 timer reject 4-26

4.1.34 reset dlsw bridge-entry. 4-27

4.1.35 reset dlsw circuits. 4-27

4.1.36 reset dlsw reachable-cache. 4-28

4.1.37 sdlc controller 4-28

4.1.38 sdlc mac-map local 4-29

4.1.39 sdlc mac-map remote. 4-30

4.1.40 sdlc max-pdu. 4-31

4.1.41 sdlc max-send-queue. 4-31

4.1.42 sdlc max-transmission. 4-32

4.1.43 sdlc modulo. 4-32

4.1.44 sdlc sap-map local 4-33

4.1.45 sdlc sap-map remote. 4-34

4.1.46 sdlc simultaneous. 4-34

4.1.47 sdlc status. 4-35

4.1.48 sdlc timer ack. 4-36

4.1.49 sdlc timer lifetime. 4-37

4.1.50 sdlc timer poll 4-37

4.1.51 sdlc window. 4-38

4.1.52 sdlc xid. 4-39

4.2 DLSw2.0 Configuration Commands. 4-39

4.2.1 debugging dlsw filter 4-40

4.2.2 debugging dlsw udp. 4-40

4.2.3 display dlsw information. 4-42

4.2.4 display dlsw remote. 4-44

4.2.5 dlsw filter acl 4-45

4.2.6 dlsw multicast 4-45

4.2.7 dlsw max-transmission. 4-46

4.2.8 dlsw remote. 4-47

4.2.9 reset dlsw tcp. 4-48

 


Chapter 1  OSI Layer 2 Configuration Commands

1.1  OSI Layer 2 Configuration Commands

1.1.1  debugging hdlc clns

Syntax

debugging hdlc clns { in | in-out | out } [ interface interface-type interface-number ]

undo debugging hdlc clns { in | in-out | out } [ interface interface-type interface-number ]

View

User view

Parameter

in: Specifies to enable debugging for input packets.

in-out: Specifies to enable debugging for input and output packets.

out: Specifies to enable debugging for output packets.

interface-type: Interface type.

interface-number: Interface number.

Description

Use the debugging hdlc clns command to enable debugging for HDLC OSI packets.

Use the undo debugging hdlc clns command to disable debugging for HDLC OSI packets.

CLNP packets, ES-IS packets, and IS-IS packets are all HDLC OSI packets.

Debugging for HDLC OSI packets is disabled by default.

Example

# Enable debugging for input and output HDLC OSI packets.

<H3C> debugging hdlc clns in-out

1.1.2  display atm map-info

Syntax

display atm map-info [ interface { interface-name | interface-type interface-num } [ pvc { pvc-name | vpi/vci } ] ]

View

Any view

Parameter

interface-name: Name of the ATM interface. Provide this argument in this form: interface-name = interface-type interface-num

interface-type: Interface type.

interface-num: Interface number.

pvc-name: Name of the permanent virtual circuit (PVC). This argument can be up to 16 characters in length and is not case-sensitive. For an ATM interface, the name of a PVC must be unique and cannot be a valid VPI/VCI pair. For example, The VPI/VCI pair 1/20 cannot be the name of a PVC. (VPI: virtual path identifier, VCI: virtual channel identifier)

vpi/vci: VPI/VCI pair. VPI ranges from 0 to 255. The available range of VCI depends on interface type and is listed in Table 1-1. Do not specify a VCI value within a range of 0 to 31, which is reserved for special use.

Table 1-1 VCI range of an ATM interface

Interface type

VCI range

ADSL

0 to 255

GSHDSL

0 to 255

ATMOC3

0 to 1023

ATM25

0 to 511

ATME3

0 to 1023

ATMT3

0 to 1023

IMA-E1/T1

0 to 511

 

Description

Use the display atm map-info command to display upper layer protocol map information about a specified ATM interface.

If you do not specify an interface, then upper layer protocol map information about all ATM interfaces is displayed.

Example

# Display upper layer protocol map information about all ATM interfaces of the device.

<H3C> display atm map-info

Atm1/0/0.1, PVC 1/33, CLNS, State UP

1.1.3  display fr map-info

Syntax

display fr map-info [ interface interface-type interface-num ]

View

Any view

Parameter

interface-type interface-num: Specifies the interface to be displayed. You can specify an interface or a sub-interface. If you do not specify an interface, information about all interfaces is displayed.

Description

Use the display fr map-info command to display frame relay (FR) address map information.

You can use this command to check to see if static address maps are correctly configured and dynamic address maps operate properly.

Example

# Display FR address map information.

<H3C> display fr map-info

Map Statistics for interface Serial1/0/2 (DTE)

DLCI = 100, CLNS, Serial1/0/2

create time = 20026/1/21 14:48:44, status = ACTIVE

encapsulation = ietf, vlink = 14

Table 1-2 Description on the fields of the display fr map-info command

Field

Description

Map Statistics for interface Serial1/0/2 (DTE)

A message that prompts you whose information is displayed

DLCI = 100, CLNS, Serial1/0/2

create time = 2006/1/21 14:48:44

The time the map is created

encapsulation = ietf

The encapsulation format is IETF.

 

1.1.4  display x25 map

Syntax

display x25 map

View

Any view

Parameter

None

Description

Use the display x25 map command to display X.25 address map information.

X.25 address map can be configured by using the x25 map command or the x25 pvc command. The display x25 map command can be used to show all X.25 address mappings.

Example

# Display X.25 address map information.

[H3C] display x25 map

Interface:Serial3/0/0(protocol status is up):

ip address:202.38.162.2   X.121 address: 22

    map-type: SVC_MAP  VC-number: 0

    Facility:

      ACCEPT_REVERSE;

      BROADCAST;

      PACKET_SIZE: I 512  O 512 ;

 

Interface:Serial1/0/0.1(protocol status is up):

Clns enabled        X.121 address: 30

    map-type: PVC_MAP  VC-number: 0

    Facility:

      PACKET_SIZE: I 512  O 512 ;

Table 1-3 describes the above output information.

Table 1-3 Description on the fields of the display x25 map command

Field

Description

Interface:Serial3/0/0(protocol status is up):

The mapped interface and its state

ip address:202.38.162.2 X.121 address: 22

The IP address and corresponding X.121 address of the interface

map-type: SVC_MAP

The map type is SVC_MAP

VC-number: 0

Number of the virtual circuits

Facility:

      ACCEPT_REVERSE;

      BROADCAST;

      PACKET_SIZE: I 512  O 512 ;

Clns enabled

CLNS is enabled

 

1.1.5  display x25 vc

Syntax

display x25 vc [ lci ]

View

Any view

Parameter

lci: Logical channel identifier ranging from 1 to 4095. If you do not provide this argument, all X.25 virtual circuits are displayed.

Description

Use the display x25 vc command to display information about X.25 virtual circuits.

Switched virtual circuits (SVC) are established on demand by X.25 network signaling. Whereas permanent virtual circuits (PVC) are established by manually configuring and remain regardless of data transmission. When operating in X.25 switching mode, a router can also establish virtual circuits as needed to switch data. You can use this command to check virtual circuits of all these types. But the displayed fields may differ.

Example

# Display X.25 virtual circuits.

[H3C] display x25 vc

Interface: Serial2/0/0

    SVC 1

    State: P4

    Map: clns to 130

    Window size: input 2  output 2

    Packet Size: input 128  output 128

    Local PS: 5  Local PR: 5  Remote PS: 5  Remote PR: 4

    Local Busy: FALSE  Reset times: 0

    Input/Output:

      DATA 5/5  INTERRUPT 0/0

      RR 0/0  RNR 0/0  REJ 0/0

      Bytes 420/420

    Snd Queue(Current/Max): 0/200

Interface: Serial2/1/0

    SVC 10

    State: P4

    SVC <--> Serial2/0/0 SVC 60

    Window size: input 2  output 2

    Packet Size: input 128  output 128

    Local PS: 0  Local PR: 0  Remote PS: 0  Remote PR: 0

    Local Busy: FALSE  Reset times: 0

    Input/Output:

      DATA 5/5  INTERRUPT 0/0

      RR 0/0  RNR 0/0  REJ 0/0

      Bytes 420/420

    Snd Queue(Current/Max): 0/200

Interface: Serial2/0/0-1.1.1.1

  PVC 1

    State: P/Inactive

    XOT PVC <--> Serial2/0/0 PVC 1 connected

    Window size: input 2  output 2

    Packet Size: input 128  output 128

    Local PS: 0  Local PR: 0  Remote PS: 0  Remote PR: 0

    Local Busy: FALSE  Reset times: 0

    Input/Output:

      DATA 0/0  INTERRUPT 0/0

      RR 0/0  RNR 0/0  REJ 0/0

      Bytes 0/0

    Snd Queue(Current/Max): 1/200

Interface: Serial2/0

  PVC 1

    State: D3

    PVC <--> XOT Serial2/0/0-1.1.1.1 PVC 1 connected

    Window size: input 2  output 2

    Packet Size: input 128  output 128

    Local PS: 0  Local PR: 0  Remote PS: 0  Remote PR: 0

    Local Busy: FALSE  Reset times: 0

    Input/Output:

      DATA 0/0  INTERRUPT 0/0

      RR 0/0  RNR 0/0  REJ 0/0

      Bytes 0/0

    Snd Queue(Current/Max): 0/200

Interface: Serial2/0/0

  SVC 59

    State: P4

    PAD: UI-130 From remote 130 connected to local 220

    Window size: input 2  output 2

    Packet Size: input 128  output 128

    Local PS: 3  Local PR: 1  Remote PS: 1  Remote PR: 2

    Local Busy: FALSE  Reset times: 0

    Input/Output:

      DATA 9/11  INTERRUPT 0/0

      RR 6/2  RNR 0/0  REJ 0/0

      Bytes 53/363

    Snd Queue(Current/Max): 0/200

1.1.6  fr map clns

Syntax

fr map clns dlciietf | compression frf9 ] *

fr map clns dlci nonstandard

undo fr map clns dlci

View

Interface view

Parameter

dlci: Local virtual circuit number ranging from 16 to 1007.

nonstandard: Specifies to encapsulate the mapping in a non-standard format; does not support frf9 compression.

ietf: Specifies to encapsulate the mapping in IETF format.

compression frf9: Specifies to adopt payload compression. Not available for point-to-point interfaces.

Description

Use the fr map clns command to add an FR mapping for OSI packets.

Use the undo fr map clns command to remove an FR mapping established for OSI packets.

Address mapping can be achieved through manually configuring or reverse address resolution protocol (RARP). Static address mapping can be achieved through manually configuring, which is applicable when there are few peer ESs or the default routes exist. Whereas dynamic address mapping can be achieved through RARP, which is applicable when the peer router supports RARP and the network is relatively complex.

As OSI packets cannot be forwarded through Layer 3 address mapping, you can only map by protocol for OSI packets. There can only be one mapping for OSI packets. So you must remove the existing map before you create a new one.

No FR mapping is established for OSI packets by default.

Example

# With a virtual circuit (DLCI = 40) existing on Serial1/0/0 interface, configure a static address mapping.

[H3C-Serial1/0/0] fr map clns 40

1.1.7  map clns

Syntax

map clns

undo map clns

View

ATM PVC view

Parameter

None

Description

Use the map clns command to create a CLNSOA mapping for a PVC.

Use the undo map clns command to remove existing CLNSOA mapping.

You can configure only one CLNS mapping for a virtual circuit on a point-to-multipoint interface. So you must remove the existing one before you create another map on the same interface.

No CLNSOA mapping is established by default.

Example

# Create a static mapping on PVC 1/32.

[H3C-atm-pvc-Atm1/0/0-1/32] map clns

1.1.8  x25 default-protocol

Syntax

x25 default-protocol [ protocol-type ]

undo x25 default-protocol

View

Interface view

Parameter

protocol-type: Protocol type, which can be IP or CLNS.

Description

Use the x25 default-protocol command to set the upper layer protocol for an X.25 interface that X.25 protocol carries by default.

Use the undo x25 default-protocol command to revert to the default upper layer protocol.

The default upper layer protocol carried by X.25 protocol is IP.

During course of establishing a X.25 SVC, the called party checks the CUD (call user data) fields in X.25 call request packets and reject the call request if the CUD fields cannot be recognized. You can specify a default upper layer protocol that X.25 carries, through which an call request packet with unrecognized CUD field is treated as the PDU (protocol data unit) of the default upper layer protocol.

Example

# Set the default upper layer protocol that the X.25 interface Serial0/0/0 carries to OSI protocol.

[H3C-Serial0/0/0] x25 default-protocol clns

1.1.9  x25 map clns

Syntax

x25 map clns x121-address x.121-address [ option ]

undo x25 map clns

View

Interface view

Parameter

clns: Specifies to use CLNS protocol.

protocol-address: Protocol address of the peer ES.

x.121-address: X.121 address of the peer ES.

option: Attributes or user facilities specific to the address mapping.

Description

Use the x25 map clns command to configure a CLNS address mapping for an X.121 address.

Use the undo x25 map command to remove an existing mapping.

No CLNS address mapping is configured by default.

Since X.25 protocol can multiplex multiple logical virtual circuits on a physical interface, you need to manually specify the mapping between network addresses and X.121 addresses.

You can configure only one X.25 CLNS mapping on a point-to-multipoint X.25 interface. You need to remove the existing X.25 CLNS mapping first if you want to configure another mapping on the same interface.

You cannot modify any parameters (including protocol address, X.121 address and all options) of a configured address mapping. As an alternative, you can delete the address mapping using the undo x25 map command, and then establish a new one.

Protocol addresses of address mappings configured for the same X.25 interface cannot be the same.

The options of the option argument are described as follows.

broadcast: Specifies to send internet protocol broadcast packets and IP-based multicast packets to the destination. This option provides solid support for routing protocols such as Routing Information Protocol (RIP).

closed-user-group group-number: Specifies the number of the closed user group corresponding to the address mapping.

idle-timer minutes: Specifies the maximum idle time of the virtual circuit associated with the address mapping. Value of 0 stands for an infinite idle time.

no-callin: Rejects any call for the address mapping.

no-callout: Disables calls launched using the address mapping.

packet-size input-packet output-packet: Specifies the maximum acceptable packet size in bytes for input and output packets. The two parameters range from 16 to 4096 (include) and must be the integer power of 2. This option is used when negotiating with the peer.

reverse-charge-accept: Specifies to accept calls that contain reverse charge requests. Calls of this type are only accepted if you specify this option.

reverse-charge-request: Specifies to carry reverse charge requests when launching calls using this address mapping.

roa-list name: Specifies an ROA list name configured using the x25 roa command in system view for the X.25 interface.

send-delay milliseconds: Specifies to carry maximum transmission delay requests when launching calls using this address mapping.

threshold in out: Specifies the acceptable throughput. The value of in/out can be 75, 150, 300, 600, 1200, 2400, 4800, 9600, 19200, and 48000. This option is used when negotiating with the peer.

vc-per-map count: Specifies the maximum number of virtual circuits permitted to associate with the address mapping.

window-size input-window-size output-window-size: Specifies the acceptable input and output window size. The two values range from 1 (include) to the modulus of the X.25 interface that accommodates the address mapping (exclude). This option is used when negotiating with the peer.

Example

# Configure CLNS address mapping on X.25 interface Serial0/0/0.

[H3C] interface serial 0/0/0

[H3C-Serial0/0/0] x25 map clns x121-address 2

# Configure IP and CLNS address mapping on X.25 interface Serial0/0/0.

[H3C] interface serial 0/0/0

[H3C-Serial0/0/0] x25 map ip 1.1.1.1 clns x121-address 2

1.1.10  x25 pvc

Syntax

x25 pvc pvc-number { ip protocol-address [ compressedtcp ] | clns }*x121-address x.121-address [ option ]

undo x25 pvc pvc-number

View

Interface view

Parameter

pvc-number: PVC number ranging from 1 to 4094 (include). This argument must be within PVC channel range.

protocol-address: Protocol address of the peer of the PVC.

compressedtcp: Specifies to enable compressed TCP.

x.121-address: X.121 address of the peer of the PVC.

option: Attributes of the PVC.

Description

Use the x25 pvc command to configure an X.25 PVC route.

Use the undo x25 pvc command to remove an X.25 PVC route.

X.25 PVCs are not created by default. The flow control parameters of a PVC with its corresponding attributes not configured are the same as those of the X.25 interface that accommodates it. (Refer to the x25 packet-size and x25 window-size command for ways to set the flow control parameters of an X.25 interface.)

You can configure only one X.25 CLNS PVC for a point-to-multipoint X.25 interface. So you must remove the existing one first if you want to configure another X.25 CLNS PVC for the same interface.

Upon the establishment of a PVC, the corresponding address mapping is automatically created. So to create the corresponding address mapping first is unnecessary (and actually impossible).

Before create a PVC, be sure to enable the PVC channel range. The PVC channel range refers to channels with channel numbers ranging from 1 (include) to the lower limit (exclude) of the nearest channel range of enabled channels. If the lower limit itself is 1, the PVC channel range is disabled. Table 1-4 lists typical PVC channel ranges.

Table 1-4 Typical PVC channel ranges

Incoming-only channel range

Two-way channel range

Out-going channel range

PVC channel

[0, 0]

[1, 1024]

[0, 0]

Disabled

[0, 0]

[10, 24]

[0, 0]

[1, 9]

[1, 10]

[15, 30]

[0, 0]

Disabled

[5, 10]

[15, 25]

[30, 32]

[1, 4]

[0, 0]

[0, 0]

[20, 45]

[1, 19]

[0, 0]

[0, 0]

[0, 0]

[1, 4094]

 

The options of the option argument are described as follows.

broadcast: Specifies to forward broadcast packets to the peer of the PVC

packet-size input-packet output-packet: Set the maximum input and output packet size in bytes of the PVC. These two values range from 16 to 4096 (include) and must be the integer power of 2.

window-size input-window-size output-window-size: Set the input and output windows size of the PVC. These two values range from 1 (include) to the modulus of the X.25 interface (exclude) accommodating the PVC.

Example

# Configure X.25 as the link layer protocol of Serial0/0/0 interface and enable PVC channel range to create a PVC.

[H3C] interface serial 0/0/0

[H3C-Serial0/0/0] link-protocol x25

[H3C-Serial0/0/0] x25 vc-range bi-channel 8 1024

[H3C-Serial0/0/0] x25 pvc 2 clns x121-address 20112451 broadcast packet-size 512 512

 


Chapter 2  OSI Layer 3 Configuration Commands

2.1  OSI Layer 3 Configuration Commands

2.1.1  clns enable

Syntax

clns enable

undo clns enable

View

System view

Parameter

None

Description

Use the clns enable command to enable CLNS.

Use the undo clns enable command to disable CLNS.

CLNS is disabled by default. When you enable CLNS globally, each interface of the router is capable of receiving/sending CLNS packets.

Example

# Enable CLNS forwarding.

<H3C> system-view

System View: return to User View with Ctrl+Z.

[H3C] clns enable

CLNS is enabled

2.1.2  clns erpacket enable

Syntax

clns erpacket enable

undo clns erpacket enable

View

System view

Parameter

None

Description

Use the clns erpacket enable command to enable generation of error report packets.

Use the undo clns erpacket enable command to disable generation of error report packets.

Generation of error report packets is enabled by default.

Example

# Enable generation of error report packets.

<H3C> system-view

System View: return to User View with Ctrl+Z.

[H3C] clns erpacket enable

2.1.3  clns erpacket interval

Syntax

clns erpacket interval [ integer ]

undo clns erpacket interval

View

System view

Parameter

integer: Integer that specifies the minimum interval in milliseconds to generate two successive error report packets. This argument ranges from 0 to 4294967295.

Description

Use the clns erpacket interval command to set the minimum interval to generate two successive error report packets.

Use the undo clns erpacket interval command to revert to the default minimum interval to generate two successive error report packets.

The default minimum interval to generate two successive error report packets is 10 milliseconds.

Example

# Set the minimum interval to generate two successive error report packets to 200 milliseconds.

<H3C> system-view

System View: return to User View with Ctrl+Z.

[H3C] clns erpacket interval 200

2.1.4  clns es-peer

Syntax

clns es-peer NSAP interface-type interface-number [ SNPA ]

undo clns es-peer