A Reference Information

This Appendix contains information that is used by multiple commands.

Summary of Range Values for :link Parameter

Table A-1 lists the valid link parameter range values for signaling links assigned to each type of card for which a location can be specified in the command's loc parameter. The commands that use these values refer to this table in their link parameter description.

Note:

The port parameter is a synonym for the link parameter in signaling link definitions for EAGLE commands. The port parameter will be removed in a future EAGLE release.

Valid CIC Ranges for SI and MSU Types in Routing Key Static Entries

Table A-2 lists the valid CIC ranges for use with SI and MSU types in Routing Key table static entries.

Table A-2 Valid CIC Ranges for SI and MSU Types

SI MSU for ANSI DPC MSU for ITU DPC Comments

4 (TUP)

N/A

CIC is 12 bits.

Range is 0-4095.

The TUP protocol is used only in ITU networks.

5 (ISUP)

CIC is 14 bits.

Range is 0-16383.

CIC is 12 bits.

Range is 0-4095.

13 (QBICC)

CIC is 32 bits.

Range is 0-4294967295.

DRANAIV/DRANAI Mapping

Table A-3 shows the mapping between the drainaiv and dranai parameters.

Table A-3 DRANAIV/DRANAI Mapping

DRAINAIV DRANAI Description

1

sub

Subscriber Number

2

unknown

Unknown

3

natl

National significant number

4

intl

International number

5

ntwk

Network

DRANPV/DRANP Mapping

Table A-4 shows the mapping between the dranpv and dranp parameters.

Table A-4 DRANPV/DRANP Mapping

DRANPV DRANP Description

1

E164

ISDN/telephony numbering plan

3

X121

Data numbering plan

4

F69

Telex Numbering Plan

NAIV/NAI Mapping

Table A-5 shows the mapping between the naiv and the nai parameters.

Table A-5 NAIV/NAI Mapping

NAIV NAI Description

0

Unknown

1

Sub

Subscriber Number

2

Rsvd

Reserved for national use

3

Natl

National significant number

4

Intl

International number

5–127

Spare

NPV/NP Mapping

Table A-6 shows the mapping between the npv and the np parameters.

Table A-6 NPV/NP Mapping

NPV NP Description

0

Unknown

1

E164

ISDN/telephony numbering plan

2

Generic

Generic numbering plan

3

X121

Data numbering plan

4

F69

Telex numbering plan

5

E210

Maritime mobile numbering plan

6

E212

Land mobile numbering plan

7

E214

ISDN/mobile numbering plan

8

Private

Private network or network-specific numbering plan

9-15

-

Spare

Cards that use the ent-card Command

Table A-7 contains information about cards that use the ent-card command for provisioning.

Table A-7 Valid Card Applications and Types

Card Name (as shown on card label) Part Number Card Type (:type) Application Type (:appl) Maximum Cards in the Database
E5-APP-B

870-3096-01

e5appb

epap

elap

2

2

E5-APP-B 870-3096-02 e5appb lsms

nas

imf

2

1

255

E5-ATM-B

870-2972-01 (R)

limatm

lime1atm

atmansi

atmitu

180 if only one link is provisioned per card. A maximum of 180 links for either application can exist in the system.

E5-E1T1-B†† 870-2970-01

lime1

limt1

ss7ansi

ccs7itu

250 for each application

E5-ENET-B

870-2971-01 (R)

dcm

enet

enetb

ipsm

stc

ss7ipgw

ipgwi

iplimi

stplan

eroute

ips

ipsg

125 for IPGWx

125 for IPLIMx

100 for ipsg

32 for stplan

32 for eroute

E5-MCPM-B*

870-3089-01 (R)

mcpm

mcp

250

E5-SM4G***

870-2860-01 (R)

870-2860-02 (R)

dsm

vsccp

18 for use with ELAP

32 for use with EPAP

E5-SM8G-B***

870-2990-01 (R)

dsm

vsccp

18 for use with ELAP

32 for use with EPAP

E5-SM8G-B***

870-2990-01 (R)

dsm

siphc

deirhc

enumhc

16 of the E5-SM8G-B cards connected to ELAP or EPAP for siphc and deirhc

16 of the E5-SM8G-B cards connected to EPAP for enumhc

E5-TSM

870-2943-03 (R)

tsm

gls

8

SLIC

slic

ipsg

siphc

deirhc

enumhc

vsccp

sfapp

40 for use as GTT on IPSG

75 for use as GTT-disabled IPSG

40 for use as Service Module cards

TELCO

870-2904-01

telco

switch

136

* Though the system allows 250 MCPM cards, practical usage is 2.

*** If any MPS-based features are running in the system, up to 25 Service Modules are allowed in the system. If only GTT is running, up to 32 Service Modules can be used in the system with the 50,000 GTT feature.

† † For the E1 or T1 interface, either SS7 application (SS7ANSI or CCS7ITU) can be assigned to these cards. For more information on the E1 or T1 interface go to Appendix A "E1 Interface" or Appendix B "T1 Interface” in the Database Administration - SS7 User's Guide.

Part numbers followed by (R) are ROHS numbers. These numbers are equivalent to the non-ROHS numbers that they are paired with.

***Connectivity to a TekServer 3 (T1200) with EPAP 13.0 or higher or connectivity to an E5-APP-B card with EPAP 15.0 or higher is required for more than 25 Service Module cards.

Summary of Loopback Testing Commands and Functions

Table A-8 and Figure A-1 summarize the loopback testing commands and functions in the system.

The tst-slk command provides several methods for testing signaling links. The loopback parameter provides the ability to select lxvr (local transceiver), oam, line, payload, and sltc loopback tests. The command will be rejected if a loopback test is not compatible with the link type.

  • For low-speed links, the lxvr and sltc tests are allowed.
  • For high-speed links (ATM, E5-ATM-B), the lxvr, oam, line, payload, and sltc tests are allowed.
  • For SS7IPGW and IPGWI DCMs, the tst-slk command is not supported.
  • For LIME1 or LIMT1 cards, or for the E5-ENET-B cards running the IPSG application, only the loopback=sltc test is allowed.
  • The E5-E1T1-B cards can function as either an E1 MIM card or a T1 MIM card, depending on how the card is provisioned. The loopback=sltc test is allowed.

The act-lbp command activates test on one or more loopback points for testing data signaling link elements in one CCS7 transmission path. The maximum number of loopback points is 32.

For a single loopback point test, the parameters can be entered on the command line. If the parameters are not entered at the command line, the LFS database is used. For multiple loopback point tests, the LFS database must be used.

The ent-lbp command is used to create the loopback points in the LFS database. The LBPs may be entered in any order.

See the command descriptions in this manual for details on entering parameters and using the commands.

Table A-8 Loopback Testing Commands and Functions

Command/Function Card Supported Testing limits

act/dact-cdl NETWORK payload low-level loopback test.

Link State-Down

Equipment tested-All links on the T1 port

Purpose-tests connectivity between 2 nodes at the T1 level with some isolation for the LIU and/or framer

Description-Tests near-end card for line, lxvr, and network payload loopback and far-end card for line and payload loopback.

Typical use-Tests connectivity

  • E5-E1T1-B
  • E5-ATM-B

1024 concurrent tests per system

ent-lbp OAM Database for Multiple LFS points per LFS tests

No impact on link behavior other than allowing multiple points

  • E5-E1T1-B (T1 mode) (channelized)

32 points per card

no limit on # of cards

act/dact-lbp

EAGLE initiated Level 1 DS0 LFS tests

Link State-Down

Equipment tested-Level 1 element(s) in a signaling path

Purpose-Test the error rates of a signaling path

Description-Sends loopback code to establish loopback, then performs BERT test for a specified period of timed

Typical use-Validates signaling path has acceptable error rate

  • E5-E1T1-B (T1 mode) (channelized)

1024 concurrent tests per system

Remote Loopback FAR END initiated DS0 LFS Test

Link State-Up or down

Equipment tested-Near end hardware up to level 2 and far end hardware level 1 interface

Purpose-Auto-Loopback a BERT test to the far end

Description-When receiving a loopback code, deactivate the link and go into loopback

Typical use-Remotely tests the far end with standard DS0 BERT tests

  • E5-E1T1-B (channelized)

no limit on # of cards

tst-slk SLTC EAGLE initiated Level 3 SS7 SLT

Link State-Up

Equipment tested-Near and far end up to Level 3

Purpose-Test the entire path to the far end at Level 3

Description-Sends an SLTM out and expects an SLTA back

Typical use-Validates connectivity of a signaling path

  • E5-E1T1-B
  • IPGW
  • E5-ATM-B

1024 concurrent link tests per system

tst-slk OAM EAGLE initiated Level 1 ATM test

Link State-Down

Equipment tested-Near and far end level 1 software and hardware including all hardware on the cards

Purpose-Test the entire near and far end level 1 hardware by exchanging ATM cells

Description-Sends OAM cells out to far end for 60 seconds if no errors, or 2 minutes if errors are received

Typical use-Verifies ATM cells can be exchanged between 2 signaling points

  • E5-ATM-B

1024 concurrent link tests per system

tst-slk LINE EAGLE initiated Level 1-2 ATM test

Link State-Down

Equipment tested-Near end hardware up to level 2 and far end hardware level 1 interface

Purpose-Hardware continuity check between near and far end

Description-The following steps occur:

  1. Device under test (DUT) sends T1 Payload bit-oriented code (BOC) to remote device
  2. Remote device receives BOC and programs hardware
  3. DUT attempts level 2 alignment
  4. If link aligns (level 2), test passes, else test fails
  5. DUT sends BOC to remote device to remove loopback
  6. Remote device receives BOC and re-programs hardware

Note:

If the DUT boots in the middle of sequence, activate or de-activate the link, and the remote device returns to the original programming.

Typical use-Checks continuity from the near end level 2 hardware to the level 1 interface at the far end for a link in line timing

  • E5-ATM-B (T1 mode)

1024 concurrent link tests per system

tst-slk PAYLOAD EAGLE initiated Level 1-2 ATM test

Link State-Down

Equipment tested-Near end hardware up to level 2 and far end hardware level 1 interface

Purpose-Hardware continuity check between near and far end

Description-The following steps occur:

  1. Device under test (DUT) sends T1 Payload bit oriented code (BOC) to remote device
  2. Remote device receives BOC and programs hardware
  3. DUT attempts level 2 alignment
  4. If link aligns (level 2), test passes, else test fails
  5. DUT sends BOC to remote device to remove loopback
  6. Remote device receives BOC and re-programs hardware

Note:

If the DUT boots in the middle of sequence, activate or de-activate the link, and the remote device returns to the original programming.

Typical use-Checks continuity from the near end level 2 hardware to the level 1 interface at the far end for a link in master timing

  • E5-ATM-B (T1 mode)

1024 concurrent link tests per system

tst-slk LXVR (DS1 loop) EAGLE initiated Level 1 Internal card loopback

Link State-Down

Equipment tested-Local card

Purpose-Test the near end card only

Description-Test the near end card up through level 2.

Typical use-Validates the card on the Eagle as good

  • E5-E1T1-B
  • E5-ATM-B

1024 concurrent link tests per system

tst-e1 LINE, LXVR (DS1 loop), PAYLOAD EAGLE Initiated E1 Port test

Link State-Down

Equipment tested-All links on the E1 port

Purpose-Tests connectivity between 2 nodes at the E1 level with some isolation for the LIU and/or framer

Description-Tests near-end card for line, lxvr, and payload loopback

Typical use-Tests connectivity

  • E5-E1T1-B

1024 concurrent tests per system

tst-t1 LINE, LXVR (DS1 loop), PAYLOAD, FELINE, FEPAYLOAD EAGLE initiated T1 port test

Link State-Down

Equipment tested-All links on the T1 port

Purpose-Tests connectivity between 2 nodes at the T1 level with some isolation for the LIU and/or framer

Description-Tests near-end card for line, lxvr, and payload loopback and far end card for line and payload loopback

Typical use-Tests connectivity

  • E5-E1T1-B (T1 mode)

1024 concurrent tests per system

Figure A-1 ATM Loopback Tests

img/loopback_background.png