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Table of Contents

Setting Up Lines

Setting Up Lines

A circuit line is the physical line that carries data, voice, Frame Relay, or ATM traffic between an IGX or BPX node and customer premises equipment (CPE). Each piece of customer premises equipment is attached to a node through a circuit line. After a card has been "upped" with the upcd command, a circuit line on that card can be "upped" and configured.

This chapter:


Note "Line" commands are the same as "circuit line" commands. However, the cnfcln command is no longer used; use cnfln instead. The switch software prompts for the parameters appropriate for the card type it detects.

The following table shows the permissible card combinations for CPE-to-IGX lines.


Table 5-1: Input Line Formats
Type Country Electrical Signal Format Ones Density Enforcement Multiplexing

J1

Japan

Coded Mark Inversion (CMI)

31 channels @ 64kbps each

E1

Others

Alternate Mark Inversion (AMI)

High density bipolar 3 (HDB3)

31 channels @ 64kbps each

1 E1 line on CDP/CVM,
FRP/FRM

8 E1 lines on UFM

T1

USA
Canada

ASIA

Alternate Mark Inversion (AMI)

Bipolar Zero Substitution (B8ZS)

24 channels @ 64kbps each

1 T1 line on CDP/CVM,
FRP/FRM

8 T1 lines on UFM

E3

Europe
and others

Physical Layer Convergence Protocol per AT&T publication; ITU I-361 with HEC for E3

HDB3

ITU-T G.804, G.832

T3

USA
Canada

Physical Layer Convergence Protocol per AT&T publication TA-TSY-00772 and 000773 for T3

B3ZS+

M13 mode


Table 5-2: Line Card Combinations
Service Node Type Front Card Back Card

ATM

IGX

UXM

BC-UAI
BC-UAI

BC-UAI-1T1
BC-UAI-1E1

BC-UAI-1OC3

ATM

IGX

ALM/A

BC-UAI-1T3
BC-UAI-1E3

Frame Relay

IGX

UFM-4C, UFM-8C

UFI-8T1-DB15, UFI-8E1-DB15, UFI-8E1-BNC

Frame Relay

IGX

FRP-6, FRP-31/FRM-6,
FRM-31

FRI-T1, FRI-E1

Frame Relay

IGX

UFM-C

UFI-8T1-DB15
UFI-8E1-DB15 or UFI-8E1-BNC

High Speed Data

IGX

SDP/HDM

SDI/RS-232
SDI/RS-422

High Speed Data

IGX

SDP/HDM

SDI/RS-232
SDI/RS-422

Voice

IGX

UVM

BC-UVI-2T1EC
BC-UVI-2E1EC
BC-UVI-2J1EC

Voice

IGX

CDP/CVM

BC-T1
BC-E1
BC-J1

Setting Up a Circuit Line

Frame relay, data, and voice connections require an active line. Use the commands in the following steps to establish a line. The card must be in either the active or standby state before you enter these commands.


Step 1   Use upln to activate a circuit line in a slot that contains the appropriate circuit line card set.

Step 2   Use cnfln to configure the circuit line.

The upln and cnfln commands establish the general parameters for the line but do not establish specific Frame Relay, data, or voice parameters. Refer to applicable chapters for details on a particular service. For example, "Data Connections" describes specific commands for data connections, and "Frame Relay Connections" describes specific commands for Frame Relay connections.

Other Circuit Line Commands

The following describes related commands.

Flow Diagrams for Line Setup

Figure 5-1, Figure 5-2, Figure 5-3, Figure 5-4, and Figure 5-5 show the command sequence for setting up lines for voice, serial data, Frame Relay, ATM, and FastPADs, respectively. A yes/no decision branch for "Other Side?" and the vt command in the sequence indicates command sequences on local and far nodes. "Multiplex" refers to channelized streams.


Figure 5-1: Setting Up Voice Lines

Figure 5-2:
Setting Up Data Lines

Figure 5-3:
Setting Up Frame Relay Lines

Figure 5-4:
Setting Up ATM Lines

Figure 5-5:
Setting Up FastPAD Lines

List of Commands

Table 5-3 shows the full command name and starting page for each line command description.


Table 5-3: Line Commands
Mnemonic Description Page

cnfcassw

Configure CAS switching

5-6

cnfln

Configure line (same as cnfcln)

5-8

cnfrsrc

Configure resources

5-15

dnln

Down line (same as dncln)

5-20

dsplncnf

Display line configuration (same as dspclncnf)

5-22

dsplns

Display lines (same as dspclns)

5-27

dsptsmap

Display time slot map

5-29

prtlns

Print circuit lines (same as prtclns)

5-31

upln

Up line (same as upcln)

5-32

cnfcassw

Configures a UVM to convert channel associated signaling (CAS) and dual-tone multi-frequency (DTMF) tones to common channel signaling (CCS) call control messages. This conversion is necessary for voice networks in which a Voice Network Switch (VNS) uses SVCs to route calls from a CAS-based PBX through a WAN. Model B or later firmware on the UVM is necessary.

Before you can execute cnfcassw, note the following:

Full Name

configure CAS switching

Syntax

cnfcassw <line> <mode> <CCS type> <CAS type> <conn type> <country code>
<interdigit timeout> <tone level> <DTMF duration> <idle pattern> <parameters 6-18>


Note For the initial implementation of CAS switching, you should specify only port 1 for the line parameter (where line has the format slot.port) and select "PBX-end" for mode.
Related Commands

dspln, dsplncnf

Attributes

Privilege Jobs Log Node Lock

1-2

No

Yes

IGX

Yes

Example 1

cnfcassw 5.1

Description

Configure port 1 of the UVM in slot 5 to support CAS switching.

System Response
sw175 TN SuperUser IGX 8420 9.2 Sep. 17 1998 06:11 PST Line 5.1 CAS Switching Parameters => CASSW mode [OFF] Parm 11 [00] (H) CCS Type [ 1] (D) Parm 12 [00] (H) CAS Type [ 1] (D) Parm 13 [00] (H) Conn Type [a32 ] Parm 14 [00] (H) Country code [00] (H) Parm 15 [00] (H) Interdigit TO [05] (H) Parm 16 [00] (H) Tone level [00] (H) Parm 17 [00] (H) DTMF duration [0C] (H) Parm 18 [00] (H) Idle pattern [54] (H) Parm 6 [00] (H) Parm 7 [00] (H) Parm 8 [00] (H) Parm 9 [00] (H) Parm 10 [00] (H) This Command: cnfcassw 5.1 Enter mode: Pbx/Server/Off (o):


Table 5-4: cnfcassw—Parameters
Parameter Description Default

line

Specifies the line in the format slot.port. The line must be up before you can execute cnfcassw.

mode

Possible entries are "p" for PBX-end, "s" for server-end, or "o" for off. The applications are as follows:

  • PBX-end applies to a UVM connected to a PBX. Specify PBX-end mode if you plan to add the signaling channel (using addcon) at the UVM connected to the PBX (rather than the CVM or UVM connected to the VNS).

  • Server-end applies to a UVM connected to the VNS. Specify Server if you plan to add the signaling channel (using addcon) at the UVM connected to the VNS (rather than the PBX).

  • Off means the UVM is not in CAS-switching mode.

off

CCS type

The range of entries 1-4. A 1 selects Q.SIG.

1

CAS type

The range is 1-32. A 1 specifies AB signaling for 2-wire E&M line.

1

connection type

Specifies the type of voice connection. Valid entries are a32 and a24.

a32

country code

The range is 0-0xFF. A 0, for example is the U.S.

0

interdigit timeout

The range is 0-0xFF, where each hexadecimal value you enter is a multiplier of 50 millisecond increments.

05, which results in 250 ms.

tone level

Specifies the dB level of the DTMF below 0 dBm. The range is 0-0xFF.

00 for 0 dB

DTMF duration

Specifies the DTMF on/off duration. The range is 0-0xFF, and the value you enter is multiplied by 5 millisecond increments.

0C, which results in 60 ms on then 60 ms off.

idle pattern

Specifies the data pattern for the data channel. The range is 0-0xFF.

7F for T1,
54 for E1 line

parms 6-19

Parameters 6-18 are reserved for future use.

00

cnfln

Configures a line to be compatible with the device to which it connects. The cnfln command applies to voice, data, Frame Relay, and ATM lines. See Table 5-1 for a list of the front and matching back cards. Because of the variety of line types and characteristics, the parameters section of this description has three tables to describe the parameters. The system automatically presents the correct options on the command line for each line type. If a parameter is not applicable to a card type, the system displays the parameter in half-tone or the value field of that parameter with dashed lines. Table 5-4 describes the parameters for voice, data, and Frame Relay parameters. Table 5-5 describes the parameters for the ATM Line Module (ALM/A). Table 5-6 describes the parameters for the ASI line card (BPX node). Table 5-7 describes the ATM parameters for the UXM card (IGX node).

For an ALM/A, the cnfln command lets you configure the receive rate and header type and enable payload scrambling. For more details on the features and configurable parameters of the ALM/A, refer to the Cisco IGX 8400 Series Reference and the Cisco IGX 8400 Series Installation manuals. Note that, although the cnfln display shows the transmit rate, you cannot configure it because the ALM/A transmit rate is always the maximum line rate.


Note The cnfln command is the same as cnfcln.
Full Name

Configure line

Syntax

cnfln <line> <parameters>

Related Commands

dspln, dsplncnf, dsptsmap

Attributes

Privilege Jobs Log Node Lock

1-2

Yes

Yes

IPX, IGX, BPX

Yes

Example 1

cnfln 14

Description

Configure voice line 14.

System Response
alpha TRM YourID:1 IGX 8420 9.2 Aug. 23 1998 09:55 PST CLN 14 Configuration T1/24 CDP slot: 13 Loop clock: -- Line framing: -- coding: -- CRC: -- recv impedance: -- E1 signalling: -- encoding: -- T1 signalling: -- cable type: -- length: -- 56KBS Bit Pos: -- pct fast modem: -- Last Command: cnfcln 14 Next Command:
Example 2

cnfcln 7 n 2

Description

Configure a Frame Relay T1 line for the following options: no loop clock and a receive impedance of 75 ohms.

System Response
alpha TRM YourID:1 IPX 16 9.2 Aug. 23 1997 09:55 PST CLN 14 Configuration T1/24 FRPslot: 13 Loop clock: -- Line framing: ESF coding: ZCS CRC: -- recv impedance: -- E1 signalling: -- encoding: -- T1 signalling: -- cable type: ABAM length: 0-133 ft. 56KBS Bit Pos: -- pct fast modem: -- Last Command: cnfcln 7 n 2 Next Command:
Example 3

cnfln 4.2 7F 0 N

Description

Configure ASI port 4.2 with an idle code 7F and without payload scrambling.

System Response
ca19 VT SuperUser BPX 8620 9.2 Aug. 23 1998 19:11 GMT LN 4.2 Configuration T3 [96000 cps] ASI-T3 slot:4 Loop clock: -- Idle code: 7F hex Line framing: -- coding: -- CRC: -- recv impedance: -- E1 signalling: -- encoding: -- cable type: T1 signalling: -- length: 0-450 ft. HCS Masking: Yes Payload Scramble: No 56KBS Bit Pos: -- pct fast modem: -- Last Command: cnfln 4.2 7F 0 N Next Command:
Example 4

cnfln 12

Description

Configure the ALM/A in slot 12.

System Response
reach TN SuperUser IGX 8420 9.2 July 22 1998 12:39 PDT LN 12 Config T3/3 [452 cps] ALM slot: 12 Transmit Line Rate: 96000 cps Receive Line Rate: 452 cps Header Type: VCC Payload Scramble Yes Last Command: cnfln 12 452 vcc y Next Command:
Example 5

cnfln 10.1 N D4 ZCS AB 4 20 _

Description

Configure line 1 on the UVM in slot 10 with no loop clock, D4 framing, Zero Code Suppression coding, AB T1 signalling, and 20% expected channel utilization by a high speed modem.

System Response
sw176 TN SuperUser IGX 8420 9.2 Sep. 15 1998 13:37 PST LN 10.1 Config T1/24 UVM slot: 10 Loop clock: No Line framing: D4 cnfg: External coding: ZCS slot.line: -- CRC: -- CAS-switching: PBX-end recv impedance: -- SVC-Caching : On E1/J1 signalling: -- encoding: u-law T1 signalling: AB cable type: ABAM length: 0-133 ft. 56KBS Bit Pos: msb pct fast modem: 20 This Command: cnfln 10.1 N D4 ZCS AB 4 20 _ Turn on SVC-Caching (Y):

This release has added a prompt to configure a UVM line for SVC Caching. It is also supported on CVM lines on the IPX. The SVC Caching feature speeds up call setup for most VNS controlled calls by avoiding some of the call setup/tear-down operations when a call originates or terminates.

Refer to the VNS Installation and Configuration Manual for more information on SVC Caching.


Table 5-5: cnfln—Voice, Frame Relay, or Data Parameters
Parameter Description Default

slot or slot.line

Specifies the line. If the back card has one line connector and cable, enter the slot number. If the card has more than one physical line, include a line number. If the card is a UVM, however, enter just the slot number.

loop clock

Enables the transmit and receive control leads to use the same clock. Format for the parameter is Y or N

N

line framing

Configures T1 line framing to be D4 or ESF.

Note that UFM-C series is ESF only.

D4 (ESF
on UFM/FRM)

line coding

Configures T1 and E1 coding:

T1: ZCS

B8ZS

AMI

ZCS
B8ZS for FRM

E1:HDB3

ZCS

HDB3

line CRC on

Enables CRC-4 detection for E1 lines. Use either Y or N

N

E1 recv impedance

Parameter Impedance Description

1 75 ohm unbalanced

2 75 ohm balanced

3 20 ohm balanced

4 0-133 ft ABAM cable

5 133-266 ft ABAM cable

6 266-399 ft ABAM cable

7 399-533 ft ABAM cable

1

signaling

E1: Common channel signaling (CCS) or
ABCD signaling bits with channel associated signaling (CAS)

CAS

T1: ABCD or ABAB (with ESF line framing) or AB
(with D4 line framing);
CCS is available in time slot 24 if applicable PBXs need it.

AB

encoding

A-law
µ-law

depends on the back card

cable type/length

Parameter Voice Circuits Frame Relay Circuits

1 0-220 ft. MAT cable CSU Network Interface

2 220-440 ft MAT cable 0-133 ft ABAM cable

3 440-655 ft MAT cable 133-266 ft ABAM cable

4 0-133 ft ABAM cable 266-399 ft ABAM cable

5 133-266 ft ABAM cable 399-533 ft ABAM cable

6 266-399 ft ABAM cable 533-655 ft ABAM cable

7 399-533 ft not used

8 533-655 ft not used

4

56kbs bit stuffing

most significant byte (msb)
least significant byte (lsb)

msb

pct fast modem

Expected ADPCM fast connections (range 0-100). High speed modems preclude the use of ADPCM. Consequently, channel load requirements increase over that required for a voice channel. The pct fast modem parameters specify the expected channel utilization (%) by a high speed modem.

20


Table 5-6: cnfln—ATM (ALM/A) Parameters
Parameter Description

line

Identifies the line. The line is the slot number of the ALM/A.

receive rate

Specifies the receive rate for the line. The range for a T3 line is 150 cells per second (cps) through 96000 cps. For an E3 line, the range is 150 cps-96000 cps.

header type

The header type is either VCC or VPC. The default is VCC. Refer to the IGX-related documentation for an explanation of the header type on the ALM/A.

payload scramble

Enables or disables payload scramble. The default is No.


Table 5-7: cnfln—ATM (ASI) Parameters
Parameter Description

line number

Specifies the ASI line to configure

line options

Specifies the ATM line options:

Parameter Description Options Default

Loop clock

Enable loop clocking

Yes/No

No

Idle Code

Hex data placed in unused payload of cells.

0 - FF
(hex)

7F

Cable
Type/Length

Length and type of cable used for trunk.

1 = 0 - 225
2 = >225

1

HCS Masking

Masking of cell header checksum to disable error checking.

Yes | No

Yes

Payload Scramble

Whether or not to scramble (randomize) the cell payload data. Note: for E3, this must always be set to Yes.

Yes | No

No


Table 5-8: cnfln—ATM (UXM) Parameters
Parameter Description

slot.line

Specifies which line on which slot to configure

line options

Specifies the ATM line options:

Parameter Description Options Default

Loop clock

Enable loop clocking

Yes/No

No

Idle Code

Hex data placed in unused payload of cells.

0 - FF
(hex)

7F

HCS Masking

Masking of cell header checksum to disable error checking.

Yes | No

Yes

Payload Scramble

Whether or not to scramble (randomize) the cell payload data. Note: for E3, this must always be set to Yes.

Yes | No

Yes

Frame Scramble

Whether or not to scramble (randomize) the frame data. Note: for E3, this must always be set to Yes.

Yes | No

No

Cell Framing

Choose the cell framing format. Select either STS-3C (SONET) or STM-1 (SDH).

STS-3C | STM-1
PLCP
HEC

STS-3C for OC-3
PLCP for T3
HEC for E3

cnfrsrc

Use the cnfrsrc command to partition resources (ports and trunks) for Automatic Routing Management PVCs, VSI-MPLS (Multiprotocol Label Switching), or PNNI SVCs. To configure SVCs, an Extended Services Processor shelf must be configured in the BPX node. (If you want to configure resources for a VSI-MPLS controller or PNNI SVCs, refer to cnfrsrc in the "VSI Commands" chapter for more information specific to configuring VSI options.)


Note Note that VSI-MPLS is supported in this release. Up to two controllers of the same type can be attached to a node and assigned the same partition to provide controller redundancy on that partition. A different set of controllers can be attached to the node and be assigned a different partition to provide controller redundancy on this second partition.

You can configure a virtual trunk to be dedicated to VSI or to Automatic Routing Management. You cannot configure a virtual trunk for both VSI and Automatic Routing Management.

This command was introduced in Release 9.1 to support physical trunks. It has been extended to support virtual trunks. After VSI has been enabled, the virtual trunk becomes a "dedicated" VSI virtual trunk. Note that if the trunk has already been added or if the VPI value has not been configured, you will not be able to configure the VPI value. (Switch software will block you from doing so.)

Configurable resources (using cnfrsrc) are:

The resources that you can currently configure are the number of connection IDs (conids) and the trunk bandwidth. You use the cnfrsrc command to configure the cell rate and number of connections on a BXM card only. (You cannot use the cnfrsrc command on the IGX.)

You configure all port and trunk attributes with cnftrk, cnftrkparm, or cnfrsrc. Note that when you change a physical port attribute, you will be notified that all the logical (physical and virtual) trunks on the port are affected.


Note Note that when using cnfrsrc to configure partition resources for Automatic Routing Management PVCs, and you are prompted whether you want to configure VSI options, enter "n" for No. You will not be prompted to enter any VSI options.
Full Name

Configure resource

Syntax

cnfrsrc <slot>.<port> <maxpvclcns> <maxpvcbw> <partition> <e/d> <minvsilcns> <maxvsilcns> <vsistartvpi> <vsiendvpi><vsiminbw> <vsimaxbw>

Related Commands

dsprsrc

Attributes

Privilege Jobs Log Node Lock

1-6

No

No

BPX (BXM cards only

No

Example 1
cnfrsrc 11.2 256 96000 y 1 e 0 0 1 1 0 0
Description

Configure resource partitions on card slot 11, port 2, to use Automatic Routing Management PVCs.

System Response
sw98 TN SuperUser BPX 8600 9.2.0r Apr. 4 1998 16:40 PST Port/Trunk : 11.2 Maximum PVC LCNS: 256 Maximum PVC Bandwidth:96000 Min Lcn(1) : 0 Min Lcn(2) : 0 Partition 1 Partition State : Enabled Minimum VSI LCNS: 0 Maximum VSI LCNS: 0 Start VSI VPI: 1 End VSI VPI : 1 Minimum VSI Bandwidth : 0 Maximum VSI Bandwidth : 0 Last Command: cnfrsrc 4.1 256 26000 1 e 512 7048 2 15 26000 100000 Next Command:


Table 5-9: cnfrsrc—Parameters
Parameter Description

slot.port

Specifies the BXM card slot and port number.

Maximum PVC LCNs

The maximum number of LCNs allocated for Automatic Routing Management PVCs for this port. The range is 1 to 256. 256 is the default. For trunks, there are additional LCNs allocated for Automatic Routing Management that are not configurable.

You can use the dspcd <slot> command to display the maximum number of LCNs you can configure using the cnfrsrc command for the given port. For trunks, "configurable LCNs" represent the LCNs remaining after the BCC has subtracted the "networking LCNs" needed. A trunk has 270 networking LCNs, or channels.

For a port card, a larger number is shown, as compared with a trunk card. This is because a trunk uses 270 networking LCNs, as compared with a port card, which uses no networking LCNs.

Setting this field to "0" would disable Automatic Routing Management PVCs on the specified port.

Note that you must specify a value greater than 0 for the Maximum PVC LCNs, Maximum PVC Bandwidth, and Maximum VSI LCNs parameters. Otherwise, you will not be able to create any Automatic Routing Management PVC connections on a BXM card. Also, if these parameters do not have values greater than 0, you will be unable to change the connection channel amount when you configure the BXM trunk using cnftrk.

Maximum PVC Bandwidth

Specifies the maximum bandwidth of the port allocated for Automatic Routing Management use. The range is 0 to 352207. 0 is the default. You can configure the Maximum PVC Bandwidth value for ports, but not for trunks.

Note that you must specify a value greater than 0 for the Maximum PVC LCNs, Maximum PVC Bandwidth, and Maximum VSI LCNs parameters. Otherwise, you will not be able to create any Automatic Routing Management PVCs on the BXM card.

Configure Partition

Answer yes or no to begin configuring resources for the partition. If you enter "n" for No, you will not be prompted to configure any VSI options. If you are configuring Automatic Routing Management PVCs, enter "n" for No.
If you want to configure VSI options, enter "y" for yes, and you will be prompted to enter the rest of the cnfrsrc parameters, which are related to configuring VSI (such as a VSI MPLS controller or a PNNI controller). Refer to the cnfrsrc command in "VSI Commands" chapter for more information on VSI-related options.

Partition ID

Specifies the ID number of the partition. 1 is the default. Always use 1 in Release 9.1. In this release, you can use 2. (The range of 0 to 255.)

Enable Partition

Answer yes or no to enable your configured partition.

Minimum VSI LCNs

The minimum number of LCNs guaranteed for this partition. The range is 1 to 256. 0 is the default. The VSI controller guarantees at least this many connection endpoints in the partition, provided there are sufficient free LCNs in the common pool to satisfy the request at the time the partition is added. When a new partition is added or the value is increased, it may be that existing connections have depleted the common pool so that there are not enough free LCNs to satisfy the request. The BXM gives priority to the request when LCNs are freed. The net effect is that the partition may not receive all the guaranteed LCNs (min LCNs) until other LCNs are returned to the common pool.

You can increase this value dynamically when there are enough unallocated LCNs in the port group to satisfy the increase.

You may not decrease the value dynamically. All partitions in the same port group must be deleted first and reconfigured in order to reduce this value.

To avoid this deficit condition, which could occur with maximum LCN usage by a partition or partitions, it is recommended that all partitions be configured ahead of time before adding connections. Also, it is recommended that all partitions be configured before adding a VSI controller using the addshelf command.

Maximum VSI LCNs

The total number of LCNs the partition is allowed for setting up connections. The min LCNs is included in this calculation. If max LCNs equals min LCNs, then the max LCNs are guaranteed for this partition.

Otherwise, (max - min) LCNs are allocated from the common pool on a FIFO basis.

If the common pool is exhausted, new connection setup requests will be rejected for the partition, even though the maximum LCNs has not been reached.

You may increase this value dynamically when there are enough unallocated LCNs in the port group to satisfy the increase.

You may not decrease the value dynamically. All partitions in the same port group must be deleted first and reconfigured in order to reduce this value.

Different types of BXM cards support different maximum values. If you enter a value greater than the allowed maximum, a message is displayed with the allowable maximum value.

Note that you must specify a value greater than 0 for the Maximum VSI LCNs, Maximum PVC Channels, and Maximum PVC Bandwidth parameters. Otherwise, you will not be able to add any connections on a BXM card.

Start VSI VPI

By default the TSC (for example, the 7200 or 7500 series router) will use either a starting VSI VPI of 1 or 2 for tag switching, whichever is available. If both are available, a starting VSI VPI of 1 is used. The VPI range should be 2-15 on a BPX  8620 VSI. The VSI range for tag switching on the BPX 8620 is configured as a VSI partition, usually VSI partition number 1. VSI VPI 1 is reserved for Automatic Routing Management PVCs. (This restriction applies only to trunks, not to ports. For a port, you can use any VPI value.) For a port UNI, the VPI range is 1 to 255. For a port NNI, the range is 1 to 4095. For trunks that do not have Automatic Routing Management configured, the VPI ranges are the same as for ports.

The VSI partition for tag switching should start at VPI 2. If VPI 2 is not to be used, you can use the tag switching VPI interface configuration on the TSC to override the defaults.

For trunks with Automatic Routing Management configured, the range is 2 to 4095. Always set to 2 for trunks.

End VSI VPI

Two VPIs are sufficient for Release 9.1, although it may be advisable to reserve a larger range of VPIs for later expansion, for example, VPIs 2-15.

The range is the <Start VSI VPI > value to 4095.

Minimum VSI Bandwidth

The minimum port bandwidth that can be used by this partition in cells/second.

The range is 0 to <Maximum Line Rate>. For example, the OC-3 line rate is 352207. 0 is the default.

Maximum VSI Bandwidth

The maximum port bandwidth that can be used by this partition. This value is used for VSI Qbin bandwidth scaling.

The range is 0 to <Maximum Line Rate>. For example, the OC-3 line rate is 352207. 0 is the default.

dnln

Deactivates ("downs") a line. After dnln executes, the line no longer generates framing, and no statistics are gathered. Before you deactivate a line, use delcon to remove all connections on the line and use dnport to deactivate the port associated with the line.


Note The dnln command is the same as the dncln command.
Full Name

Down line

Syntax

dnln <line number>

Related Commands

upcln, dsplns, dsptsmap

Attributes

Privilege Jobs Log Node Lock

1-2

Yes

Yes

IPX, IGX, BPX

Yes

Example 1

dnln 12

Description

Deactivate line 12.


Table 5-10: dnln-Parameters
Parameter Description

line number

Specifies the line. If the back card has one line, enter the slot number. If the card has more than one line, include a line number.

Example 2

dnln 3.12

Description 2

Deactivate line 12 on slot 3.


Table 5-11: dnln—Parameters for UXM
Parameter Description

slot.line number

Specifies the slot and line to down on the UXM.

dsplncnf

Displays the configuration of a line. Table 5-11 shows all possible parameters in the display. The fields that actually contain data depend on the type of line.


Table 5-12: Possible Line Configuration Parameters
Screen Item Description Options

LN configuration

Line type and the number of channels.

T1
E1

Loop clock

Specifies whether the receive clock is
looped back to the transmit clock.

Y
N

Line framing

Identifies the type of line framing
used by the circuit line.

DS4 for T1
ESF for T1
PLCP for T3/E3
HEC for T3/E3
STS-SC for OC-3
STM-1 for OC-3

Line coding

Identifies the line coding used by
the circuit line.

E1: HDB3, AMI
T1: ZCS, B8ZS, AMI

CRC

Specifies the CRC checking on E1 lines

Y
N

recv impedance

Nominal impedance for the receive line.

75 ohms balanced or unbalanced

120 ohms balanced

E1 signaling

Identifies the signaling type used for E1.

CCS or ABCD with CAS

encoding

Specifies the voice encoding scheme

µlaw
Alaw

T1 signaling

Identifies the signaling type used for T1

ABCD or ABAB (with ESF line framing) or AB (with D4 line framing); CCS is available in timeslot 24 if applicable PBXs need it.

56 kbps Bit Pos:

Position in word for bit stuffing on 56 kbs data channels.

MSB or LSB

Pct fast modem

Cable type

Specifies the T1 or E1 cable type (used
for equalization)

MAT
ABAM

Cable length

Specifies the T1 or E1 cable length in
feet to the CSU or digital cross-connect.

0-220 220-440 440-655

0-133 133-262 262-393

393-524 524-655

T3/E3 = 0-255 ft.|greater than 255 ft.

Cnfg

Applies to the UVM: cnfg shows the mode of an individual UVM port. The slot.line identifies the line.

External, Passing, Blocked, or Inserting

See the UVM documentation in the Cisco IGX 8400 Series Reference for a description of these modes.

Transmit Line Rate

Applies to ATM line cards: the display
shows the transmit line rate (the
direction is away from the node).

The value is always the maximum for the line and is in cells per second (cps): 96000 cps for T3, 80000 cps for E3, or 353208 cps for OC-3.

Receive Line Rate

Applies to ATM line cards: the display
shows the user-configured receive line rate (the direction is towards the node).

The value is in cells per second (cps). The range is 150-9600 cps for T3, 150-80000 cps for E3, or 353208 cps for OC-3.

Header Type

Applies to ATM cards: the display
shows the user-specified header type.

The header type is VCC or VPC.

Payload Scramble

Applies to ATM cards: the display
shows whether payload scramble is on.

The display shows "Yes" or "No."

Full Name

Display line configuration

Syntax

dsplncnf <line number>

Related Commands

cnfln (obsolete name: cnfcln)

Attributes

Privilege Jobs Log Node Lock

1-6

No

No

IPX, IGX, BPX

o

Example 1

dsplncnf 5.1

Description

Displays configuration for line 1 of the UVM in slot 5. The "cnfg" field shows "External," so all DS0s terminate on line 1. Also, CAS switching is off, and SVC caching is on.

System Response
sw175 TN SuperUser IGX 8420 9.2 Sep. 17 1998 23:28 PST LN 5.1 Config E1/30 UVM slot: 5 Loop clock: No Line framing: On cnfg: External coding: HDB3 slot.line: -- CRC: No CAS-Switching: Off recv impedance: 75 ohm + gnd SVC-Caching : On E1/J1 signalling: CAS encoding: A-LAW T1 signalling: -- cable type: -- length: -- 56KBS Bit Pos: msb pct fast modem: 20 Last Command: dspclncnf 5.1 Next Command:
Example 2

dsplncnf 13

Description

Display the configuration of the line card in slot 13. The card in slot 13 is an ALM/A.

System Response
sw142 TN SuperUser IGX 16 9.1 July 31 1997 12:01 PDT LN 13 Config T3/1 [150 cps] ALM slot: 13 Transmit Line Rate: 96000 cps Receive Line Rate: 150 cps Header Type: VCC Payload Scramble: No Last Command: dsplncnf 13 Next Command:
Example 3

dsplncnf 12.1

Description

Display the line configuration for 12.1. The card is slot 12 is an ASI in a BPX node.

System Response
ca20 LAN SuperUser BPX 8620 9.2 Aug. 23 1998 10:35 PST LN 12.1 Configuration T3 [96000 cps] ASI-T3 slot:12 Loop clock: -- Idle code: 7F hex Line framing: -- coding: -- CRC: -- recv impedance: -- E1 signalling: -- encoding: -- cable type: T1 signalling: -- length: 0-450 ft. HCS Masking: Yes Payload Scramble: No 56KBS Bit Pos: -- pct fast modem: -- Last Command: dsplncnf 12.1 Next Command:
Example 4

dsplncnf 7.1

Description

Displays configuration for line 1 of the UXM OC-3 card set in slot 7.

System Response
sw224 TN SuperUser IGX 16 9.0.n2 Aug. 27 1997 16:09 GMT LN 7.1 Config OC-3 UXM slot: 7 Loop clock: No Idle code: 7F hex HCS Masking: Yes Payload Scramble: Yes Frame Scramble: Yes Cell Framing: STS-3C Last Command: dsplncnf 7.1


Table 5-13: dsplncnf—Parameters
Parameter Description

line number

Identifies the line in the format slot or slot.line. If the back card has one line connector and cable, enter the slot number. If the card has more than one physical line, such as a UXM, enter a slot and line number. In the case of a UVM, however, enter just the slot number.

dsplns

Displays basic configuration and status information for all the lines on the node. The information includes the line number, the type of line, and the line alarm status. The line type shows whether the line is J1, T3, E3, T1, E1, or OC-3 and shows the number of configured DS0s. Line alarm status categories include:

♦ Clear—Line OK

Alarm Information Signal

♦ Loss of Signal

Remote Out of Frame

♦ Out of Frame

Remote Out of Packet Frame

♦ Minor—Bad clock source

Loss of Multiframe

Full Name

display lines


Note The dspclns command is the same as the dsplns command.
Syntax

dspclns

Related Commands

dncln, dsptrks, upcln

Attributes

Privilege Jobs Log Node Lock

1-6

No

No

IPX, IGX, BPX

No

Example

dsplns

Description

Display circuit lines on the node.

System Response
sw109 VT SuperUser IGX 8420 9.2 Aug. 20 1998 18:40 PST Line Type Current Line Alarm Status 3 T1/24 Clear - OK 5.1 E1/30 Clear - OK 5.2 E1/30 Clear - OK 5.3 E1/30 Clear - OK 5.7 E1/30 Clear - OK 5.8 E1/30 Clear - OK 7.1 T1/24 Clear - OK 11 E1/30 Clear - OK Last Command: dsplns Next Command:

dsptsmap

Use the dsptsmap command to display the channel to time slot mapping usage information on a UVM card on an IGX node or a CDP/CVM card on an IPX node. The dsptsmap command is for use with the SVC caching feature which speeds up call setup for most VNS controlled calls. The SVC caching feature avoids some of the call setup/tear-down operations associated with addcon and delcon as a call originates or terminates. The SVC caching feature reduces the connect time for many switch calls over a busy network.

To use the dsptsmap command, the line must have SVC caching enabled on it. You can find out if a channel is disabled by using the dsptsmap command.

The cnfln command is used to configure the SVC caching parameter setting.

The dspcons command is used to view disabled connections provided the SVC has not been deleted.

The dsplncnf command will show the value (On/Off) of the SVC caching mode feature.

Refer to the VNS Installation and Configuration Manual for more information on SVC caching.

Full Name

Display the channel to time slot mapping usage for a UVM on an IGX node.


Note The dspclns command is the same as the dsplns command.
Syntax

dsptsmap <line_number>[update_interval]

Related Commands

cnfuiparm, cnfln, cnfupcln, dncln, dsptrks, dspln, dsplncnf

Attributes

Privilege Jobs Log Node Lock

1-6

No

No

IPX, IGX

No

Example

dsptsmap 7.2

Description

Display channel to time slot mapping for a specified line.


Table 5-14: dsptsmap—Parameters
Parameter Description

line_number

slot.line for UVM or line for CVM/CDP

interval_number

Interval in seconds between screen updates. The default value is controlled by "Screen Update Time" in the cnfuiparm command.

Example

dsptsmap 9 1

Description

Enabled channels are shown on the screen underlined and in reverse video. Disabled (cached) channels are shown with the channel number underlined and in reverse video, while the time slot is shown in normal video. Channels that have no connection are shown in normal video for both channel number and time slot.

For example:

Specify the line_number parameter in slot.line format for UVM, and line format for CDP/CVM.

Use the optional update_interval parameter to control how often the screen gets updated. If you do not enter any value through the CLI, the value of the "Screen Update Time" parameter set using in the cnfuiparm command is used.

System Response
sw176 TRM StrataCom IGX 16 9.1.0 Sep. 5 1997 11:00 PST Line 7.2 Channel to Timeslot Map Chan TS Chan TS Chan TS Chan TS -------- -------- -------- -------- 1 1 9 14 17 17 2 2 10 12 18 5 3 22 11 18 19 19 4 5 12 10 20 20 5 11 13 13 21 21 6 6 14 9 22 3 7 7 15 15 23 23 8 8 16 9 24 24 This Command: dsptsmap 7.2 Hit DEL key to quit:

prtlns

Prints the current line configuration and line alarm status for a node. This command uses the same syntax, and prints the same information as is displayed using the dsplns command. See the dspclns command for syntax and output information.

Full Name

print line configuration

Syntax

prtlns

Related Commands

dsplns

Attributes

Privilege Jobs Log Node Lock

1-6

Yes

No

IGX, BPX

Yes

Example

prtlns

Description

This command uses the same syntax and prints the same information as is displayed using the dsplns command. See the dsplns command for syntax and output information.

upln

Activates (ups) a line. Use the upln command to make the line available for configuring and to start statistics gathering.

You must activate ports at both ends of the line by executing the upport command before running upln. You must execute upln at both ends of the line. Executing upln at only one end of the line eventually causes an alarm. Once both ends of the line are active, you can add connections with the addcon command or optionally configure the line's signal characteristics for the data you intend for the line. See cnfln for information on defining the line characteristics.

A line consists of a cable for transmitting data and the interface circuitry for the line. The cable can be a coaxial wire, fiber optic, or a twisted pair. See Table 5-1 for information on card combinations.

The Ports and Trunks feature lets you configure multiple trunk lines and circuit line cards on a single BXM or UXM card simultaneously. In previous releases, when a single port is upped as a trunk (by using the uptrk command), all the remaining ports on that card are treated as a trunk. Similarly, when you upped a single port as a circuit line (by using the upln command), all the remaining ports on the card are treated as circuit line ports.

The Ports and Trunks feature lets you configure multiple trunk lines and circuit lines on a single BXM or UXM card simultaneously. In previous releases, when a single port is upped as a trunk (by using the uptrk command), all the remaining ports on that card are treated as a trunk. Similarly, when you up a single port as a circuit line (by using the upln command), all the remaining ports on the card are treated as circuit line ports. This feature allows the BXM and UXM trunks to be trunk line cards as well as circuit line cards, and to allow trunks and circuit lines to coexist on these cards.

For example, assuming that a four-port BXM card is plugged into slot 11, you could do the following:

    1. uptrk 11.1

    2. upln 11.2

    3. upln 11.3

    4. uptrk 11.4

That is, you could up a trunk at port 1 on slot 11, up a line at port 2 of slot 11, up a line at port 3 of card slot 11, and also up a trunk at port 4 of card slot 11.

In Release 9.2, the BXM or UXM card can be a trunk card and a line (port) card at the same time. For example, a BXM slot can up port 1 as a trunk interface while upping port 2 as a line interface.

Multi-Level Channels Statistics Feature Support in Release 9.2

To support the Multi-Level Channels Statistics feature, you will be prompted when you attempt to up the line with upln or up the trunk with uptrk, warning you that you must initialize the channel statistics level before the card will be activated. This warning applies only when upping the first trunk or first line on the card.

Channel Statistic Level must be initialized prior to card activation
Note If, after upping a BXM line, you get a message telling you to use cnfrsrc to configure PVCs, make sure that when configuring resource partitions with cnfrsrc, you specify values greater than 0 for the Maximum PVC Channels, Maximum PVC Bandwidth, and Maximum VSI LCNs. Otherwise, you will be unable to create any AutoRoute PVCs on a BXM card. You also will not be able to change the Connection Channels amount with cnftrk if these parameters' values are not set to values greater than 0.

Note The upln command is the same as upcln.
Full Name

Up line

Syntax

upln <line number>

Related Commands

cnfcln, dsplns, dspln, dncln

Attributes

Privilege Jobs Log Node Lock

1-2

Yes

Yes

IPX, IGX, BPX

Yes

Example 1

upln 4.2

Description

Activate line 4.2. After this command executes, the system displays the status of the line using the same information as dsplns displays.

System Response
ca19 VT SuperUser BPX 8620 9.2 Aug. 23 1998 19:08 GMT Line Type Current Line Alarm Status 4.1 T3 Clear - OK 4.2 T3 Clear - OK Last Command: upln 4.2 Next Command:


Table 5-15: upln—Parameters
Parameter Description

line number

Identifies the line number in the form slot for a single-line card or slot.port for a card with more than one line.

Example 2

upln 3.2

Description 2: Upping a Line on a UXM

Activate line 2 on slot 3. After this command executes, the system displays the status of the line using the same information as dsplns displays.


Table 5-16: upln-Parameters
Parameter Description

slot.line number

Specifies the slot and line to up on the UXM. There can be no more than sixty four (64) lines per node. The upln command will be rejected if all sixty four lines have already been upped.

for UXM

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Posted: Fri Nov 8 07:08:09 PST 2002
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