T-BERD/MTS 5800, 5800-100G,
MSAM, CSAM, DMC, and SC 4800/
4800P
Page 2
Page 3
T-BERD/MTS/SC Getting
Started Guide
T-BERD/MTS 5800, 5800-100G, MSAM,
CSAM, DMC, and SC 4800/4800P
Viavi Solutions
1-844-GO-VIAVI
www.viavisolutions.com
Page 4
Notice
Every effort was made to ensure that the information in this manual was accurate at the
time of printing. However, information is subject to change without notice, and Viavi
reserves the right to provide an addendum to this manual with information not available
at the time that this manual was created.
word mark and logos are registered trademarks owned by Bluetooth
SIG, Inc. and any use of such marks by Viavi is under license.
All other trademarks and registered trademarks are the property of their respective
owners.
Copyright release
Reproduction and distribution of this guide is authorized for US Government purposes
only.
Ordering information
The catalog number for a printed getting started manual is ML-22046563. The catalog
number for electronic manuals on USB is CEML-21138299.
Terms and conditions
Specifications, terms, and conditions are subject to change without notice. The provision of hardware, services, and/or software are subject to Viavi’s standard terms and
conditions, available at www.viavisolutions.com/en/terms-and-conditions.
Open Source Disclaimer - IMPORTANT READ CAREFULLY
The MSAM, CSAM, T-BERD / MTS 5800 family of instruments, and SC 4800/4800P
include third party software licensed under the terms of separate open source software
licenses. By using this software you agree to comply with the terms and conditions of
the applicable open source software licenses. Software originated by Viavi is not
subject to third party licenses. Terms of the Viavi Software License different from applicable third party licenses are offered by Viavi alone.
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Product Regulatory Compliance
Federal Communications Commission (FCC) Notice
This product was tested and found to comply with the limits for a Class A digital device,
pursuant to Part 15 of the FCC Rules. These limits are designed to provide reasonable
protection against harmful interference when the equipment is operated in a commercial environment. This product generates, uses, and can radiate radio frequency energy
and, if not installed and used in accordance with the instruction manual, may cause
harmful interference to radio communications. Operation of this product in a residential
area is likely to cause harmful interference, in which case you will be required to correct
the interference at your own expense.
The authority to operate this product is conditioned by the requirements that no modifications be made to the equipment unless the changes or modifications are expressly
approved by Viavi.
This device complies with Part 15 of the FCC Rules. Operation is subject to the
following two conditions: (1) This device may not cause harmful interference, and (2)
This device must accept any interference received, including interference that may
cause undesired operation.
If this equipment does cause harmful interference to radio or television reception, which
can be determined by turning the equipment off and on, the user is encouraged to try
to correct the interference by one or more of the following measures:
–Reorient or relocate the receiving antenna.
–Increase the separation between the equipment and receiver.
–Connect the equipment into an outlet on a circuit different from that to which
the receiver is connected.
–Consult the dealer or an experienced radio/TV technician for help.
In order to maintain compliance with the limits of a Class A digital device Viavi requires
that quality interface cables be used when connecting to this equipment. Any changes
or modifications not expressly approved by Viavi could void the user's authority to
operate the equipment.
Industry Canada Requirements
This device complies with Industry Canada license-exempt RSS standard(s). Operation
is subject to the following two conditions: (1) this device may not cause interference,
and (2) this device must accept any interference, including interference that may cause
undesired operation of the device.
Le présent appareil est conforme aux CNR d'Industrie Canada applicables aux appareils radio exempts de licence. L'exploitation est autorisée aux deux conditions suivantes: (1) l'appareil ne doit pas produire de brouillage, et (2) l'utilisateur de l'appareil doit
accepter tout brouillage radioélectrique subi, même si le brouillage est susceptible d'en
compromettre le fonctionnement.
This Class A digital apparatus complies with Canadian ICES-003.
T-BERD/MTS/SC Getting Started Guide
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Page 6
Cet appareil numérique de la classe A est conforme à la norme NMB-003 du Canada.
Please note that Industry Canada certification for the TB/MTS-5800-100G includes the
following models: TB-5800-100G, MTS-5800-100G, and TB-5800v3.
EU WEEE and Battery Directives
This product, and the batteries used to power the product, should not be disposed of
as unsorted municipal waste and should be collected separately and disposed of
according to your national regulations.
Viavi has established a take-back processes in compliance with the EU Waste Electrical and Electronic Equipment (WEEE) Directive, 2012/19/EU, and the EU Battery
Directive, 2006/66/EC.
Instructions for returning waste equipment and batteries to Viavi can be found in the
WEEE section of Viavi's Standards and Policies web page.
If you have questions concerning disposal of your equipment or batteries, contact
Viavi's WEEE Program Management team at WEEE.EMEA@ViaviSolutions.com.
EU REACH
Article 33 of EU REACH regulation (EC) No 1907/2006 requires article suppliers to
provide information if a listed Substances of Very High Concern (SVHC) is present in
an article above a certain threshold.
For information on the presence of REACH SVHCs in Viavi products, see the
Hazardous Substance Control section of Viavi's Standards and Policies web page.
EU CE Marking Directives (LV, EMC, RoHS, RE)
This product conforms with all applicable CE marking directives. Please see EU Declaration of Conformity for details.
This preface explains how to use this Getting Started Guide. Topics discussed in this
chapter include the following:
•“Purpose and scope” on page xvi
•“Assumptions” on page xvi
•“Terminology” on page xvi
•“Related information” on page xix
•“Conventions” on page xx
•“Safety and compliance information” on page xxii
•“Technical assistance” on page xxii
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About this Guide
Purpose and scope
Purpose and scope
The purpose of this manual is to help you successfully use the features and capabilities
of the Dual Module Carrier (DMC), Transport Module, Multi-Service Application Module
(MSAM), and 100 G Service Application Module (CSAM) for the T-BERD ⁄ MTS 8000,
6000A, and 5800 platforms as well as each of the members of the T-BERD ⁄ MTS 5800
Handheld Network Test Family, and Smart Class 4800/4800P instruments. This manual
includes task-based instructions that describe how to configure, use, and troubleshoot
the general functions each of the test instruments.
Assumptions
This manual is intended for novice, intermediate, and experienced users who want to
use their test instruments effectively and efficiently. We are assuming that you have
basic computer experience and are familiar with basic telecommunication concepts,
terminology, and safety.
Terminology
The T-BERD 8000 is branded as the MTS-8000 in Europe, and it is interchangeably
referred to as the T-BERD 8000, MTS 8000, MTS-8000, MTS8000 and Media Test Set
8000 in the guide.
The T-BERD 6000A is branded as the MTS-6000A in Europe, and it is interchangeably
referred to as the T-BERD 6000A, MTS 6000A, MTS-6000A, MTS6000A and Media
Test Set 6000A.
The T-BERD 5800 family of instruments is branded as the MTS-5800 in Europe, and it
is interchangeably referred to as the T-BERD 5800, MTS 5800, MTS-5800, MTS5800,
Media Test Set 5800 and 5800.
The Smart Class 4800 is also referred to as the SC 4800/4800P, SC 4800, SC4800,
and 4800.
Components
The following terms are used to represent instrument components throughout this
manual:
•Application module — Used throughout this manual to refer to the component
that provides test functionality to the assembled instrument. This manual supports
two application modules: the MSAM and CSAM.
The T-BERD / MTS 5800 and 5800-100G are all-in-one test instruments which do
not require an application module; however, optional modules are available and
can be attached to the devices for additional functionality.
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About this Guide
Te rm i no l og y
•Assembly — Used throughout this manual to refer to a complete set of compo-
nents assembled as an instrument and used for testing.
–DMC assembly, consisting of a T-BERD ⁄ MTS 8000 base unit, an interme-
diary Dual Module Carrier (DMC), and up to two MSAMs with up to four Physical Interface Modules (PIMs, two per MSAM), or up to two CSAMs (requires
a DMC2).
–MSAM assembly, consisting of a either a T-BERD ⁄ MTS 6000A base unit
with a single MSAM and up to two PIMs, or a T-BERD ⁄ MTS 8000 base unit
with a DMCv2 and up to two MSAMs and up to four PIMs.
–CSAM assembly, consisting of either a T-BERD / MTS 6000Av2 base unit
with a single CSAM, or a T-BERD ⁄ MTS 8000 base unit with a DMCv2 and
up to two CSAMs.
–5800, 5800-100G assembly, consisting of a T-BERD ⁄ MTS 5800 test instru-
ment and a battery module. Optional Optical Time Domain Reflectometer
(OTDR), or Timing Expansion Module (TEM) modules are also available for
the 5800. The 5800-100G and 5882 instruments have an internal GNSS
receiver.
–SC 4800 and 4800P assembly, consisting of a Smart Class 4800/4800P test
instrument and a battery module.
–Base unit — The unit which connects directly to the application module
(MSAM or CSAM), DMC (if applicable), and power adapter, providing the
user interface and a variety of connectivity and work flow tools. If optioned to
do so, the base unit also allows you to measure emitted power, received
power, and optical link loss on fiber optic networks.
•Battery Module — The module connected to the back of the T-BERD / MTS 8000
base unit, which supplies power whenever power is not provided using the AC
power adapter.
•Component— Used throughout this manual to refer to an individual hardware
component which is connected to the other components to build a complete test
instrument (assembly). This manual supports the following components: the
MSAM, CSAM, DMC, 5800 and SC 4800/4800P devices.
•
CSAM 100G Services Application Module—Referred to generically as “the
instrument” when inserted in the T-BERD / MTS 6000A base unit or the DMCv2
and a T-BERD / MTS 8000 base unit. The CSAM provides testing functionality for
the base unit.
•DMC — Dual Module Carrier. The DMC is a two slot chassis which you can
connect to the T-BERD / MTS 8000 base unit to test using up to two MSAM application modules and up to four PIMs, or up to two CSAMs (DMCv2 required).
•Expansion Module — A variety of expansion modules are available for some of
the 5800 family of instruments to provide additional functionality. Available expansion modules are listed in “Attaching an expansion module to the 5800v2/100G
and 5882” on page 40.
•FC — Used to represent Fibre Channel on instrument connector panels and user
interface. Also identifies the optical ports used for Fibre Channel testing.
•MSAM Multiple Services Application Module — Referred to generically as “the
instrument” when inserted in the T-BERD / MTS 6000A base unit with at least one
PIM, or the DMC and T-BERD / MTS 8000 base unit with at least one PIM. The
MSAM and PIM provide testing functionality for the base unit.
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About this Guide
Terminology
•PIM— Physical Interface Module. The module inserted into one of up to two ports
provided on the MSAM chassis. PIMs supply the physical connectors (interfaces)
required to connect the MSAM to the circuit under test. A variety of cables, SFPs,
and XFPs are offered as options, and are used to connect the PIMs to the circuit.
•T-BERD ⁄ MTS 8000, 6000A — The family of products, typically a combination of
a base unit, a battery module, and one or more application modules. The DMC
can be used on the T-BERD / MTS 8000 platform to test using two MSAMs or two
CSAMS (DMCv2 required).
•OTDR Module — Optical Time Domain Reflectometer Module. The module can
optionally be connected to the back of the 5800 to characterize optical networks.
•OTN — Optical Transport Network.
•SyncE — Synchronous Ethernet.
•TEM Module — Timing Expansion Module. The module can optionally be
connected to the back of the T-BERD / MTS 5800 to support testing using a
GNSS (Global Navigation Satellite System) based clock or other precise clock
sources.
•GPS chip— A device that fulfills some of TEM’s GNSS functions and can be
used on T-BERD / MTS 5800-100G and 5882.
•Viavi Ethernet test set — A test set marketed by Viavi and designed to transmit
an Acterna Test Packet (ATP) payload. These packets carry a time stamp used to
calculate a variety of test results. The FST-2802 TestPad, the SmartClass
Ethernet tester, the HST with an Ethernet SIM, the T-BERD/MTS 6000A MSAM,
the T-BERD ⁄ MTS 5800, and SC 4800/4800P can all be configured to transmit
and analyze ATP payloads, and can be used in end-to-end and loopback configurations during testing.
•SC 4800 and 4800P — Stand-alone units that do not support expansion modules.
Transceivers
The following terms are used to represent the transceivers supported by the instruments documented in this manual:
•CFP — C Form-Factor Pluggable optical transceiver. A variety of optional CFPs
(CFP, CFP2, and CFP4) and adapters are available for performing tests over 40G
and/or 100G fiber circuits using your instrument.
•Copper SFP — Small Form-factor Pluggable module. Transceiver used to test
copper over 10GigE LAN circuits.
•QSFP+ — Quad Small Form-Factor Pluggable optical transceiver. A transceiver
used to test 40G fiber circuits. A CFP2 to QSFP28 adapter supporting 100G fiber
circuits can also be used in the CSAM.
•SFP — Small Form-factor Pluggable module. Used on the connector panel and
throughout this manual to represent pluggable optical modules.
•SFP+ — Enhanced Small Form-Factor Pluggable module. An enhanced SFP
module designed to support data rates up to 10G.
•XFP — 10 Gigabit Small Form-Factor Pluggable optical transceiver. A transceiver
used to test 10G fiber circuits.
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Line rates and signals
The following terms are used to represent the line rates and signals supported by the
instruments in this manual:
•10/100/1000 Ethernet — Used to represent 10/100/1000 Mbps Ethernet. The
connector panel may also use 10/100/1000M to identify the port to be used for 10/
100/1000 Mbps Ethernet testing.
•1GigE — Used to represent 1 Gigabit Ethernet.
•10G — Used to represent 10 Gigabit circuits. 10GE may also be used to identify
the optical ports used for 10 Gigabit Ethernet LAN and WAN testing.
•100G — Used to represent 100 Gigabit circuits. 100GE may also be used to iden-
tify the optical ports used for 100 Gigabit Ethernet testing.
•OC-n — Used to refer to each optical SONET rate (OC-3, OC-12, OC-48, and
OC-192), where “n” represents the user-selected line rate.
•STM-n — Used to refer to each optical SDH rate (STM-1, STM-4, STM-16, and
STM-64), where “n” represents the user-selected line rate.
•STS-1 — Used to refer to the electrical equivalent of OC-1 (51.84 Mbps).
About this Guide
Related information
•STM-1e — Used to refer to the electrical equivalent of STM-1 (155.52 Mbps).
•OTU1 — Optical Transport Unit 1. A 2.7G OTN signal designed to carry a SONET
OC-48 or SDH STM-16 client signal. OTU1 is used on connector panels and user
interfaces to identify the connectors and applications used for 2.7G OTN testing.
•OTU2 — Optical Transport Unit 2. A 10.7G, 11.05G, or 11.1G OTN signal
designed to carry SONET OC-192, SDH STM-64, or 10G Ethernet WAN and LAN
client signals. OTU2 is used on connector panels and user interfaces to identify
the connectors and applications used for 10.7G, 11.05G, or 11.1G OTN testing.
•OTU3 — Optical Transport Unit 3. A 43G OTN signal designed to carry 40G
BERT signals.
•OTU4 — Optical Transport Unit 4. An 111.8G OTN signal designed to carry 100G
Ethernet BERT and ODU4 encoded signals.
Related information
This is the getting started guide for the DMC, Transport Module, CSAM, MSAM, 5800
and 5800-100G, and Smart Class 4800/4800P. It provides basic instructions for assembling the instrument components, setting up the instrument, instrument specifications,
and contact information for Viavi’s Technical Assistance Center (TAC). Read this
manual carefully before connecting your instrument to the circuit you are testing.
Use this guide in conjunction with the following manuals:
•The 8000 Base Unit User Manual. This manual provides an overview, specifica-
tions, and instructions for proper operation of the 8000 base unit.
•The 6000A Base Unit User Manual. This manual provides an overview, specifica-
tions, and instructions for proper operation of the 6000A base unit.
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About this Guide
Conventions
•The T-BERD/MTS/SC Ethernet and Fibre Channel Testing Guide for the
T-BERD 5800 family of instruments, MSAM, and CSAM. For SC 4800/4800P only
Ethernet, IP, TCP/UDP and IP Video are applicable. The manual provides detailed
instructions for testing on each of the listed networks. It also explains how to run
key scripts and describes each of the available test results.
•The T-BERD/MTS/SC SONET, SDH, OTN and PDH Testing Manual for the
T-BERD 5800 family of instruments, MSAM, and CSAM. For SC 4800/4800P only
PDH is applicable. The manual provides detailed instructions for testing on each
of the listed networks.
•The Data Communications and Diphase Testing Manual for the MSAM. The
manual provides detailed instructions for testing Datacom and Diphase interfaces
using the MSAM.
•The Timing Expansion Module (TEM) User Manual for the optional TEM Module
that is available for high accuracy timing when testing using the 5800v2 and 5800100G.
•The OTDR Functions, Options, and Software Applications User Manual for the
optional OTDR modules that are available for testing using the 5800v2 and 5800100G.
•Help. The topics addressed in the three testing manuals are also available on
Conventions
This guide uses typographical and symbols conventions as described in the following
tables.
Table 1Text formatting and other typographical conventions
Item(s)Example(s)
Buttons, keys, or switches that
you press or flip on a physical
device.
Buttons, links, menus, menu
options, tabs, or fields on a PCbased or Web-based user interface that you click, select, or
type information into.
your instrument in an HTML format.
Press the
– Press the
– Flip the
Press the On button.
– Click File > Properties.
– Click the
– Type the name of the probe in the
Name
On button.
Enter key.
Power switch to the on position.
Properties tab.
Probe
field.
Directory names, file names,
and code and output messages
that appear in a command line
interface or in some graphical
Table 1Text formatting and other typographical conventions (Continued)
Item(s)Example(s)
Conventions
Text you must type exactly as
shown into a command line
interface, text file, or a GUI text
field.
References to guides, books,
and other publications appear in
this typeface.
Command line option separators.
Optional arguments (text variables in code).
Required arguments (text variables in code).
Table 2Symbol conventions
This symbol indicates a note that includes important supplemental information or tips related to the main text.
This symbol represents a general hazard. It may be associated with either a
DANGER, WARNING, CAUTION, or ALERT message. See
more information.
– Restart the applications on the server using
the following command:
$BASEDIR/startup/npiu_init
restart
Type: a:\set.exe in the dialog box.
Refer to Newton’s Telecom Dictionary.
platform [a|b|e]
login [platform name]
<password>
Table 3 for
This symbol represents an alert. It indicates that there is an action that must
be performed in order to protect equipment and data or to avoid software
damage and service interruption.
This symbol represents hazardous voltages. It may be associated with
either a DANGER, WARNING, CAUTION, or ALERT message. See
Tab l e 3
for more information.
This symbol represents a risk of explosion. It may be associated with either
a DANGER, WARNING, CAUTION or ALERT message. See
Table 3 for
more information.
This symbol represents a risk of a hot surface. It may be associated with
either a DANGER, WARNING, CAUTION, or ALERT message. See
Tab l e 3
for more information.
This symbol represents a risk associated with fiber optic lasers. It may be
associated with either a DANGER, WARNING, CAUTION or ALERT message. See
Table 3 for more information.
This symbol, located on the equipment, battery, or the packaging indicates
that the equipment or battery must not be disposed of in a land-fill site or
as municipal waste, and should be disposed of according to your national
regulations.
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About this Guide
Safety and compliance information
Table 3Safety definitions
TermDefinition
DANGER
WAR NINGIndicates a potentially hazardous situation that, if not avoided,
CAUTIONIndicates a potentially hazardous situation that, if not avoided,
ALERT
Indicates a potentially hazardous situation that, if not avoided, will
result in death or serious injury. It may be associated with either a
general hazard, high voltage, or other symbol. See
more information.
could result in death or serious injury. It may be associated with
either a general hazard, high voltage, or other symbol. See
for more information.
could result in minor or moderate injury and/or damage to equipment.
It may be associated with either a general hazard, high voltage, or
risk of explosion symbol. See
When applied to software actions, indicates a situation that, if not
avoided, could result in loss of data or a disruption of software
operation.
Indicates that there is an action that must be performed in order to
protect equipment and data or to avoid software damage and service interruption.
Table 2 for more information.
Tab l e 2 for
Table 2
Safety and compliance information
Safety and compliance information for the instrument are provided in printed form and
ship with your instrument.
The MSAM and CSAM are part of a modular platform; therefore, the safety and compliance information are provided with the base unit in the supporting base unit user
manual (delivered in the equipment’s help system), with additional information in the
printed T-BERD / MTS-6000 Getting Started Manual card or the T-BERD / MTS-8000 Getting Started Manual card. The cards are shipped and delivered with their respective
base units.
For a 5800 and 4800 instruments, refer to the T-BERD ⁄ MTS 5800, SC 4800 and TEM Safety Information document that is shipped with the instrument.
Technical assistance
If you require technical assistance, call 1-844-GO-VIAVI. For the latest TAC information, go to http://www.viavisolutions.com/en/services-and-support/support/technical-
assistance.
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Chapter 1 Overview
This chapter provides a general description of each of the test instruments. Topics
discussed in this chapter include the following:
•“About the instruments” on page 2
•“Features and capabilities” on page 2
•“Configuring your instrument” on page 4
•“What ships with your instrument?” on page 4
•“Accessories” on page 6
•“About the T-BERD / MTS 5800 and SC 4800” on page 8
•“About the CSAM Assembly” on page 14
•“About the MSAM Assembly” on page 17
1
•“About the DMC Assembly” on page 24
•“Viavi recommended optical adapters and transceivers” on page 25
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Chapter 1 Overview
About the instruments
About the instruments
The T-BERD / MTS MSAM, CSAM, 5800, 5800-100G are all-in-one test solutions for
the following networks:
•T-Carrier (DS1 and DS3)
•PDH (E1 through E4)
•SONET (STS-1 through OC-192)
•SDH (STM-1e through STM-64)
•Ethernet (10/100/1000, 100 M Optical, 1 Gigabit Optical, 10 Gigabit Ethernet LAN
and WAN, 40 Gigabit Optical and 100 Gigabit Optical)
•IP (10/100/1000, 100 M Optical, 1 Gigabit Optical, 10 Gigabit Ethernet LAN and
WAN, 40 Gigabit Optical and 100 Gigabit Optical)
•IP Video (10/100/1000, 100 M Optical, 1 Gigabit Optical, and 10 Gigabit Ethernet
LAN)
•Fibre Channel (1G, 2G, 4G, 8 G, 10G, 16G and 32G)
(8G available only on MSAMv2 with 8G-capable SFP+ or XFP transceiver)
•OTN (2.7G, 10.7G, 11.05G, 11.1G, 43.02G and 111.8G)
The Smart Class 4800 and 4800P are stand-alone units that do not support expansion
modules and have fewer features. Refer to your customer documentation for a list of
covered networks.
The MSAM also accepts physical interface modules (PIMs) designed to allow you to
test Data communications and Diphase interfaces. The 5800 family of instruments
allows you to connect optional expansion modules for enhanced optical testing or a
highly accurate timing source during testing.
Each of the instruments is designed to be a rugged, portable, battery-operated test
solution that facilitates the quick turn-up and troubleshooting of multiple services and
network elements in the Metro and Core network. This allows providers who are
expanding their offerings into new data and wavelength services to deploy a single
technician to install and maintain new elements and services using one integrated
module or integrated instrument.
Features and capabilities
Features and capabilities of the instruments include the following (assuming your
instrument is optioned and configured to do so):
•Electrical interfaces support — Ability to test circuits from a variety of electrical
interfaces (DS1, E1 BNC, E1 RJ-48, E3, DS3, STS-1, E4, and STM-1e BNC os
HD-BNC).
•SONET/SDH interfaces support — Ability to test circuits from a variety of SONET
and SDH interfaces (OC-3/STM-1 through OC-192/STM-64).
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Chapter 1 Overview
Features and capabilities
•Ethernet interface support — Ability to test circuits from a variety of Ethernet interfaces (10/100/1000 Mbps Electrical through 100M and 1 GigE optical circuits),
10 GigE LAN and WAN, and 100 GigE optical circuits at 850 nm, 1310 nm, and
1550 nm.
•SyncE interface support — Ability to test circuits from a variety of SyncE interfaces.
•Fibre Channel interface support — Ability to test 1, 2, 4, 8, 16 and 32 Gigabit (on
T-BERD / MTS 5800-100G only) Fibre Channel interfaces.
•OTN support — Ability to test OTU1 (2.7G) and OTU2 (10.7G, 11.05G, and 11.1G)
circuits by performing FEC tests, BER tests, and inserting errors and alarms. Also
test OTU3 (43.02G) and OTU4 (111.8G) circuits by performing BERT and
Ethernet tests and inserting errors and alarms. All tests are to verify that network
performance conforms to G.709 standards.
•High Accuracy Timing support — Using the optional TEM module and a T-BERD /
MTS 5800v2, the ability to provide a highly accurate timing reference during
testing and precisely synchronize the timing on multiple instruments.
•OTDR support — Ability to use your instrument to conduct OTDR testing and
characterize an optical fibre cable.
•Intuitive user interface — User interface facilitates quick test configuration and
execution, and easy interpretation of test results.
•Detailed test results — You can use the entire screen to observe test results, or
you can collapse and expand certain test results for which a variety of measurements are made (such as current, average, minimum, or peak throughput
measurements). You can also suppress graphical result collection if you intend to
run resource intensive applications. For Dual Term or Dual Through applications,
you can observe test results for both ports simultaneously.
•Automatic traffic transmission —You can optionally set up Ethernet, IP, TCP/UDP,
and Fibre Channel test applications to generate and transmit traffic automatically
whenever you turn the laser on (for optical applications).
•VT-100 terminal emulation — If your instrument is optioned to do so, you can use
it to emulate a VT-100 terminal, and then connect it to a network element via a
serial interface to gather information about the element.
•Optical power measurements — Ability to measure optical power.
•Automated RFC 2544 and Fibre Channel tests — In addition to the standard
tests, expert tests are available which allow you to specify and review test settings
quickly and efficiently.
•HTML viewer — An HTML viewer is available which allows you to easily view and
navigate through HTML files on your instrument.
•Cable Test — Ability to examine the state of the cables, including AOC/DAC
cables, used to transmit 10/25/40/100 GigE before you begin testing.
•Ethernet and Internet Protocol service verification — Ability to verify proper installation and maintenance of carrier-grade Ethernet and Internet Protocol services.
•IP video service verification — The ability to verify and troubleshoot IP video
service.
•TCP/UDP, FTP, and HTTP protocol support — The ability to transmit and analyze
traffic carried using the TCP/UDP, FTP, and HTTP protocols.
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Configuring your instrument
•VLAN, Q-in-Q, VPLS, MPLS, and stacked VLAN up to 8 tags encapsulation
support — The ability to transmit and analyze VLAN, Q-in-Q, VPLS, MPLS and
stacked VLAN up to 8 tags encapsulated Ethernet traffic.
•Dual view applications — When running multiple tests, you can view results for
two tests side-by-side. For more information, see “Viewing both tests” on
page 129.
•Support for tunable SFP+ or XFPs —
frequency grid for DWDM which creates channel spacing. The channel spacing
allows different carriers to run on the same fiber. When using a tunable SFP+ or
XFP in our instrument, you can specify a channel, wavelength or frequency for the
transceiver
specified in the interface, an automatic best-match calculation will be made to
select the appropriate value. For more information, see “Tuning SFP+ and XFP
transceivers” on page 100.
•VNC password — Allows you to change the password on your test instrument.
For a comprehensive list of features and capabilities for each technology supported,
refer to the Testing Manual that shipped with your instrument.
. If the tunable SFP+ or XFP uses a specification unit other than that
Configuring your instrument
Each instrument is factory-configured to meet your unique testing requirements. When
you place an order for an instrument, a customer service or sales representative will
help you determine which base unit (if applicable), chassis, optics assembly, connector
configuration, PIM, or testing options you need.
To discuss a specific hardware chassis, configuration, or the available testing options,
contact your regional sales office. Contact information is provided on the back cover of
this manual.
The ITU-T G.694.2 standard provides a
What ships with your instrument?
The following items typically ship with your instrument:
•Base unit, application modules, and DMC — Depending on your order, the
components required to test network elements and services are shipped to you.
Components may include the T-BERD ⁄ MTS 8000 base unit, the T-BERD ⁄ MTS
6000 base unit, the DMC, the CSAM, or the MSAM. Software and hardware
options are also available which enable you to expand your testing capabilities for
T-Carrier/PDH, SONET/SDH, Ethernet, IP, TCP/UDP, IP Video, Fibre Channel,
and OTN testing.
•Physical interface module (PIM) — Each MSAM provides up to two PIM slots,
enabling you to connect and swap a variety of PIMs designed to test specific interfaces. After you select the MSAM chassis that best suits your needs, your
customer service representative will let you know which PIMs are available for
that particular chassis.
•The T-BERD / MTS 5800 and SC 4800 instruments are factory-configured to
meet your testing requirements (see Table 6 on page 10).
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Chapter 1 Overview
Unpacking the components
•AC power adapter — A power adapter designed specifically for use with your
instrument is included. Use only the Viavi AC Power Adapter that shipped with your particular instrument. For details, refer to “Powering the instrument” on
page 56.
•Transceivers — When you order your instrument, a customer service representative will let you know which transceivers are available from Viavi. Additional transceivers can be ordered separately for an additional charge.
•Fiber Optic connectors — If your Module is configured for 10 Gigabit testing, one
set of SC, FC, or ST fiber optic connectors is included with the module. When you
order your module, a customer service representative will ask you which type of
connectors (SC, FC, or ST) you would like. For single-mode interfaces, such as
100GBASE-LR4 or 40GBASE-LR4, the typical connector type used on the optics
which Viavi provides is LC.
LC connectors, SFPs, and CFP adapters are also available for some interfaces
and can be ordered separately for an additional charge.
The CSAM can be used with CFP or CFP2 optics (40/100G rates) or QSFP+
optics (40G rates). The CSAM can also be used with an optional CFP2 to
QSFP28 adapter (100G rates).
•BNC to BNC adapter cable — If you order an instrument with SONET testing
capabilities, two BNC to BNC adapter cables are included for DS3 and STS-1
applications. Note: T-BERD/MTS 5800-100G supports CFP4 and QSFP28 as
native ports (i.e. no adapter is required).
•BNC to 440A adapter cable — If you order an instrument with SONET testing
capabilities, two BNC to 440A adapter cables are included for DS3 and STS-1
applications.
•SMB to SMA adapter — Included with T-BERD/MTS 5800-100G.
•Carrying case — A carrying case is included with the MSAM. Always use this
carrying case when transporting your instrument, and follow the instructions
provided with the carrying case carefully.
If you ordered an instrument with optics, a transceiver case designed to accommodate up to six SFPs and three XFPs is also available. A PIM carrying case is
also available, which can store up to three PIMs.
•User documentation — A Getting Started Manual and Testing Manuals (on USB
memory stick), a list of Viavi recommended optics (SFP transceivers), and a
comprehensive help system also ship with the instrument. Remote control
command documentation is also available on the documentation USB memory
stick.
Before testing, the application modules (and if applicable, the DMC) must be connected
to a base unit, which can be ordered separately. Refer to the 8000 Base Unit User Manual or the 6000A Base Unit User Manual for a list of options and accessories
offered for the base units.
Unpacking the components
Viavi typically ships our instruments using anti-static packing material to stabilize the
components inside the box.
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Chapter 1 Overview
Inspecting the components for damage
When unpacking the components, verify that all the items you ordered are included in
the package. Accessories may be shipped in a separate box.
After you unpack the components, you should inspect them for damage.
If undamaged, consider saving the box and packing materials in case you need to
repackage the components for shipment. For information about shipping equipment,
see Appendix C “Storage and Shipment” .
Inspecting the components for damage
After you unpack the components, examine the connectors, ports, LEDs, and screen
for damage. Be sure to check the top, bottom, and front panels.
If you find damage, contact Viavi Customer Care at 1-844-GO-VIAVI. For the latest TAC
information, go to http://www.viavisolutions.com/en/services-and-support/support/tech-
nical-assistance.
For information about returning equipment, see “Returning equipment to Viavi” on
page 263.
Accessories
Table 4 lists some of the accessories available for the instruments.
Table 4Accessories
AccessoryDescription
TransceiversA variety of Viavi recommended SFP, SFP+, XFP, QSFP+,
QSFP28, and CFP transceivers (and adapters) are available
for testing optical circuits. Be certain to only use Viavi recommended transceivers and adapters with your test instrument.
Each of the transceivers and adapters offered by Viavi as an
accessory is MSA compliant, and has been qualified for use
with your instrument. A list of Viavi recommended optics
shipped with your instrument or upgrade kit.
For a list of currently supported optics, contact your Viavi TAC
representative or your local Viavi sales office. Please refer to
your transceiver (or adapter) manufacturer’s site for detailed
specifications.
CablesA variety of Viavi-recommended optical cables are available for
connecting to the circuit you are testing.
TB/MTS-5800EPP
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The 5800 Ethernet Pairing Partner is an accessory used for
enhanced RJ-45 Ethernet cable diagnostics. It includes two
RJ-45 ports, one for completing a wire-map test with a TB/
MTS-5800 and the other for performing a shield ground continuity test with the RJ-45 connector on port 2 of a TB/MTS-
5882.
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Table 4Accessories (Continued)
AccessoryDescription
Chapter 1 Overview
Optional Expansion Modules
TB/MTS-5800TOD
The 5800 Time of Day accessory is a USB powered accessory
that accepts two (2) RS-422 interfaces on an 8 pin RJ interface
(8P8C – 8 position 8 contact). The Time of Day messages are
passed to the TB/MTS-5800 mainframe via a USB type B
(Mini-B) connector. The One-Pulse-Per-Second (1 PPS) signals are presented to the 5800 on an SMA coaxial interface.
AttenuatorsA variety of Viavi-recommended attenuators are available for
attenuating transmitted and received signals if necessary.
Rack MountThis kit allows you to mount various devices in a 19 inch rack.
Hard caseA hard case allows you to protect your test instrument.
Soft caseLight weight cases allow you to store your test instrument when
it is not being used.
The MSAM cases are designed to hold a single base unit with
a single MSAM. A PIM carrying case is also available, which
can store up to three PIMs. In addition to the MSAM and PIM
cases, a transceiver case designed to accommodate up to six
SFPs and three XFPs is available.
Refer to the 8000 Base Unit User Manual or 6000A Base Unit User Manual for a list of
accessories offered for the base unit.
NOTE:
For additional information about available configurations, options, and services, contact your local
pany web site,
www.viavisolutions.com.
Optional Expansion Modules
Table 5 lists the available optional expansion modules for the product families and test
instruments that are supported in this manual. The expansion modules are configured
and offered with different capabilities. For example, different Optical Time-Domain
Reflectometer (OTDR) Modules are available that support singlemode, multimode,
short range, long range, extended range, and passive optical network (PON) fiber
testing.
In addition to providing specific capabilities, each expansion module is designed to
support specific product families, and is compatible with specific versions (models) of
any given test instrument that is part of the product family. For example, the Timing
Viavi representative or contact Viavi via the com-
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About the T-BERD / MTS 5800 and SC 4800
Expansion Module (TEM) is designed to support the 5800 product family, and is only
compatible with the 5800v2 and 5800-100G test instruments.
Table 5T-BERD ⁄ MTS Platform Expansion Modules
ModulesUsed to
OTDRMeasure and characterize fiber loss. OTDR expansion
modules are available to test:
– 850 nm and 1300 nm multimode fibers spanning
All modules allow you to measure and characterize fiber
loss; others also support work flow optimization and accurate fibre-link fingerprinting.
CDWM Optical
Spectrum Analyzer
(COSA)
Characterize fiber links with exact CWDM wavelengths
per ITU-T G.694.2, and simulate a CWDM transmitter
for insertion loss testing and end-to-end continuity
checks.
TEMProvide a high accuracy timing reference when testing
using a 5800v2.
NOTE:
For additional information about the expansion modules that are available
for your test instrument, contact your local
Viavi representative, or contact
Viavi via the company web site, www.viavisolutions.com. Data sheets with
specifications and product family brochures are also available on the site.
About the T-BERD / MTS 5800 and SC 4800
The T-BERD / MTS 5800 (shown in Figure 1) and Smart Class 4800/4800P (shown in
Figure 2) family of testers are designed to be rugged, portable, battery-operated test
solutions that facilitate the quick turn-up and troubleshooting of multiple services and
network elements in the Metro and Core network. This allows providers who are
expanding their offerings into new data and wavelength services to deploy a single
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Chapter 1 Overview
About the T-BERD / MTS 5800 and SC 4800
technician to install and maintain new elements and services using one integrated
instrument.
Figure 1T-BERD / MTS 5800-100G
Figure 2SC 4800
Configuring the T-BERD / MTS 5800 and SC 4800
The T-BERD / MTS 5800 and SC 4800 units are factory-configured to meet your
testing requirements.
When you place an order for a 5800 or 4800, a customer service or sales representative
will help you determine the right configuration for your needs.
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Chapter 1 Overview
About the T-BERD / MTS 5800 and SC 4800
Table 6 describes the available configurations.
Table 6T-BERD / MTS 5800 and SC4800 configurations
Catalog NumberConfiguration
TB/MTS-5801T-BERD / MTS 5800 Single Port Test Instrument
TB/MTS-5802T-BERD / MTS 5800 Dual Port Test Instrument
TB/MTS-5812T-BERD / MTS 5800 10g and Dual Port Test Instrument
TB/MTS-5812LBT-BERD / MTS 5800 10G and Dual Port Loop Back Device
TB/MTS-5801PT-BERD / MTS 5800 Single Port Test Instrument with PDH
TB/MTS-5802PT-BERD / MTS 5800 Dual Port Test Instrument with PDH
TB/MTS-5812PT-BERD / MTS 5800 10G and Dual Port Test Instrument with
TB/MTS-5811PT-BERD/MTS 5800 V2 Single 10G Port Test Instrument with
(used for loop back applications only; no traffic generation)
PDH
PDH
TB/MTS-5811PG T-BERD / MTS 5800 V2 Single 10G Port Test Instrument with
PDH, no WiFi / Bluetooth
TB/MTS-5811PLT-BERD / MTS 5800 V2 Single 10G Port with T1/E1
TB/MTS-5882T-BERD / MTS 5800 Dual 10G Port Test Instrument with
PDH and internal GNSS receiver
TB/MTS-5822PT-BERD / MTS 5800 V2 Dual 10G Port Test Instrument with
PDH
TB/MTS-5822PG T-BERD / MTS 5800 V2 Dual 10G Port Test Instrument with
PDH, no WiFi / Bluetooth
TB/MTS-5800100G
TB/MTS-5800100GG
T-BERD / MTS 5800-100G Test Unit with internal GNSS
receiver
T-BERD / MTS 5800-100G Test Unit with internal GNSS
receiver, no WiFi / Bluetooth
SC4800Smart Class 4800 Single Port Test Instrument
SC4800PSmart Class Single Port Test Instrument with T1/E1 port
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Chapter 1 Overview
About the T-BERD / MTS 5800 and SC 4800
NOTE:
Some configurations also require you to purchase and install certain testing
options; others require specific hardware connectors to connect to circuits
for testing. For example, if your instrument does not have a connector
designed to support 1GigE Optical testing, you can not transmit and analyze a signal or traffic over a 1GigE circuit. OTDR testing and testing using
GNSS timing requires the connection of supporting OTDR and TEM modules or an internal GNSS receiver.
You can quickly determine whether or not your instrument supports certain
applications by exploring the technologies, rates, and test modes presented
on the Test menu and by reviewing the settings available when you configure a test.
To discuss a specific configuration or to order accessories for your 5800 or 4800,
contact Viavi Customer Care or your regional sales office. Contact information for
regional sales headquarters is provided on the back cover of this manual. You can also
contact Viavi through the company web site, www.viavisolutions.com
.
Exploring the SC 4800 and T-BERD / MTS 5800
Smart Class 4800
The connector panels on SC 4800 and 4800P have one 10/100/1000 port and one
SFP+ port. SC 4800P has an additional DS1/E1 port.
Figure 3SC 4800 connector panel
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Chapter 1 Overview
About the T-BERD / MTS 5800 and SC 4800
Figure 4SC 4800P connector panel
10/100/1000M connector
A 10/100/1000M connector allows you to connect the SC 4800 to an electrical Ethernet
circuit to transmit and analyze traffic.
SFP+ connector
The SFP+ connector allows you to connect the SC 4800 to 1 Gigabit Ethernet, 100 FX,
or 100M Ethernet circuit to transmit and then analyze traffic.
DS1/E1 connector (on SC 4800P only)
One balanced 120 Ohm RJ 48 transmitter/receiver allows you to connect the 4800 to
an E1 (2M) circuit to transmit and analyze traffic.
NOTE:
The E1 and DS1 interfaces should not be connected at the same time. After
running your test, disconnect from one interface before connecting to the
other interface.
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Chapter 1 Overview
About the T-BERD / MTS 5800 and SC 4800
T-BERD / MTS 5800
The connector panel of the T-BERD / MTS 5800 provides the connectors and SFP+
connectors (and QSFP/CFP4 on 5800-100G) used to connect the instrument to the
circuit for testing.
Figure 5T-BERD / MTS 5800-100G connector panel
After selecting a test application, LEDs illuminate indicating which connectors to use for
your test.
SFP+ connectors
Two SFP+ connectors allow you to connect the 5800 to a SONET, SDH,
1 Gigabit Ethernet, 10GigE, 100 FX, or 100M Ethernet circuit to transmit and then
analyze traffic.
QSFP/CFP4 connectors
The QSFP connectors provide 40G and 100G capabilities, so capabilities cover
QSFP+/QSFP28. The CFP4 port is for 100G usage.
E3/DS3/STS-1/E4/STM1(e) connectors
One Tx/Rx pair or two receivers allow you to connect the 5800 to an E3, DS3, STS-1,
E4, or STM-1e circuit to transmit and analyze traffic.
10/100/1000M connectors
Up to two 10/100/1000M connectors allow you to connect the 5800 to an electrical
Ethernet circuit to transmit and analyze traffic.
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Chapter 1 Overview
About the CSAM Assembly
E1 connectors
Two unbalanced 75 Ohm BNC receivers, and one unbalanced 75 Ohm BNC transmitter
allow you to connect the instrument to an E1 (2M) circuit to transmit and analyze traffic.
The Rx 2 receiver can be used as the input for a SETS signal or an E1 reference clock.
E1 RJ 48 transmitter/receiver
One balanced 120 Ohm RJ 48 transmitter/receiver allows you to connect the 5800 to
an E1 (2M) circuit to transmit and analyze traffic.
DS1 connectors
NOTE:
The E1 and DS1 interfaces should not be connected at the same time. After
running your test, disconnect from one interface before connecting to the
other interface.
Two DS1 Bantam receivers and one DS1 Bantam transmitter allow you to connect the
5800 to a DS1 circuit to transmit and analyze traffic. The Rx 2 receiver can be used as
the input for a DS1 BITS signal.
EXT CLK connector
SMA connector for external clock input. Use the SMA to BNC barrel adapter if a BNC
connector is needed (applicable to MSAM v1 only).
Headset/handset connector
Use the headset connector when dropping voice traffic from a DS0 interface.
USB host connector
Located on the right side of the unit, the two USB host connectors (USB 2.0) allow
connection of a USB drive, or other USB device.
LAN connector
Located on the right side of the unit, the RJ-45 LAN connector is used to connect to
your local network.
About the CSAM Assembly
The CSAM is used in combination with the T-BERD ⁄ MTS 6000A base unit, the
T-BERD ⁄ MTS 6000AV2 base unit or a T-BERD ⁄ MTS 8000 base unit with a DMC
chassis. Each CSAM is factory-configured to meet your unique testing requirements.
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Chapter 1 Overview
QSFP+
40G connectors
CFP2
40/100G connectors
Clock out/1PPS
connector
External Clock
Reference
SFP+
connectors
About the CSAM Assembly
Figure 6T-BERD ⁄ MTS 6000AV2 with CSAM user interface
When you place an order for an CSAM, a customer service or sales representative will
help you determine the following:
•Whether you want to use the CSAM with a T-BERD ⁄ MTS 6000A base unit, or
with a T-BERD ⁄ MTS 8000 base unit with a Dual Module Carrier (DMCv2).
•If you ordered a CSAM that provides CFP or QSFP+ connectors; associated
transceivers (and potentially CFP adapters) are required. A variety of
Viavi-approved adapters and transceivers are available.
For assembly instructions, see “Inserting MSAMs or CSAMs into the 6000A base unit
or DMC” on page 35. All dual port applications require two connectors. CFP and QSP+
adapter and transceiver specifications vary depending on the manufacturer.
Exploring the CSAM connector panel
The CSAM connector panel provides the connectors used to connect the module to the
circuit for testing. See Figure 7.
Figure 7CSAM Connector Panel
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Chapter 1 Overview
About the CSAM Assembly
External Clock Reference and Clock Out/1PPS connectors
These connectors provide input/output of synchronization reference signals (BITS,
SETS, 2.048MHz, and 100Mhz) and allow you to connect the CSAM to external
sources to obtain synchronization timing signals. The Clock Out/1PPS connector can
be used as an input or output.
CFP2 40/100G connectors
A single CFP connector (labeled CFP2 40/100G) supports a CFP2 transceiver, and
allows you to connect the CSAM to a 40G SONET/SDH, 40 or 100G Ethernet, or OTU3
(43.02 G)/OTU4 (111.8 G) circuit to transmit and then analyze traffic during testing. You
can also use a CFP2 to QSFP28 adapter to connect to and perform tests on 100G
Ethernet or OTU4 (111.8 G) circuits; or a CFP2 to CFP4 adapter and a CFP4 transceiver.
QSFP+ 40G connectors
A single QSFP+ connector (labeled QSFP+ 40G) supports QSFP+ transceivers, and
allows you to connect the CSAM to a 40G SONET/SDH, 40G Ethernet, or OTU3
(43.02 G) circuit to transmit and then analyze traffic during testing (for more information
about the rates, check with your customer documentation).
MPO connectivity
LR4 interfaces for 40G and 100G connectivity are based on regular single mode fibers
and use LC connectors.
SRx interfaces are based on multimode ribbon cables and use MPO connectors.
MSA compliant QSFP+ transceivers (with a 40GBASE-SR4 interface) and a CFP2 to
QSFP28 adapter (with a 100GBASE-SR4 interface) have been qualified by Viavi for
use with the CSAM. CFP transceivers and adapters (with a 100GBASE-SR10 interface) have also been qualified.
40GBASE-SR4 and 100GBASE-SR4 interfaces use single row MPO connectors with
12 fiber terminations (as illustrated in Figure 8).
Figure 812-fiber MPO connector
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100GBASE-SR10 interfaces use double row MPO connectors with 24 fiber terminations (as illustrated in Figure 9).
Figure 924-fiber MPO connector
SFP+ connectors
Two SFP connectors allow you to connect the CSAM to a SONET, SDH,
1 Gigabit Ethernet, 100 FX, 100M, or 1, 2, or 4 Gigabit Fibre Channel circuit to transmit
and then analyze traffic during testing. If your instrument is configured and optioned to
do so, you can also analyze IP Video traffic on the Ethernet circuits. OTU-1 connections
are only supported on PORT# 1.
Chapter 1 Overview
About the MSAM Assembly
About the MSAM Assembly
The MSAM is used in combination with the T-BERD ⁄ MTS 6000A base unit, the
T-BERD ⁄ MTS 6000AV2 base unit or a T-BERD ⁄ MTS 8000 base unit with a DMC
chassis. Each MSAM is factory-configured to meet your unique testing requirements.
Figure 10 T-BERD ⁄ MTS 6000A with MSAM user interface
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Chapter 1 Overview
About the MSAM Assembly
Figure 11 T-BERD ⁄ MTS 6000AV2 with MSAM user interface
When you place an order for an MSAM, a customer service or sales representative will
help you determine the following:
•Whether you want to use the MSAM with a T-BERD ⁄ MTS 6000A base unit, or
•The type of MSAM chassis required (for example, you can order a single or dual
with a T-BERD ⁄ MTS 8000 base unit with a Dual Module Carrier (DMC).
port chassis that supports PIMs designed for 1.544 Mbps through 10 Gigabit
testing).
•The PIM (or PIMs) required for testing 1.544 Mbps through 10 Gigabit circuits. If
you ordered a dual port chassis and you intend to use both ports simultaneously
(for example, in dual port through mode), PIMs should be ordered for both ports.
•If you ordered an SFP or XFP PIM, the transceivers are required. A variety of
Viavi-approved SFP and XFP transceivers are available for each PIM.
The plug in panel of each MSAM provides one or more physical interface module (PIM)
ports. Before connecting the instrument to the circuit for testing, you must insert the
required PIMs into the ports, and then insert the appropriate SFPs or XFPs into the
transceiver cages provided on the PIMs.
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MSAM chassis
MSAM chassis
BNC connector
SFP PIM with two
transceiver cages
XFP PIM with one
transceiver cage
Each MSAM chassis provides the application module software, one or two PIM ports,
and a 75 OHM BNC connector (used for external timing). Several types of chassis are
available; therefore, your unit may not have both of the ports illustrated in Figure 12.
Figure 12 MSAM chassis (dual port with XFP and SFP PIMs)
Chapter 1 Overview
About the MSAM Assembly
NOTE:
The MSAMv2 chassis has an additional USB host connector to the right of Port
2 and the BNC EXT REF connector is replaced with a SMA CLK I/O connector.
Table 7 lists the available MSAM chassis.
Table 7MSAM chassis
Catalog
Number
Description
C0400Single Port1.544 Mbps to 4 Gbps
C0400-v2Single Port1.544 Mbps to 10 Gbps
C0404Dual Port
1
1.544 Mbps to 4 Gbps
C0404-v2Dual Port1.544 Mbps to 6 Gbps
C1000Single Port1.544 Mbps to 10 Gigabit
C1000LBSingle Port10 Mbps to 10 Gbps Loopback Only
C1004Dual Port
1
– One 1.544 Mbps to 10 Gbps port
– One 1.544 Mbps to 4 Gbps port
C1010-v2Dual Port1.544 Mbps to 10 Gbps
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1. A dual port chassis is required if you intend to use the MSAM for OTN testing.
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Chapter 1 Overview
About the MSAM Assembly
USB connector
The MSAMv2 USB connector provides analog audio using a Viavi analog headset and
USB-to-analog adapter. When using the MSAMv2, the audio from the MSAMv2 is used
(USB audio from the base unit is disabled). USB 2.0 is not supported. For best audio
quality, the switch on the headset should be set to the lowest position (the smallest of
the three dots, closest to the wire).
SMA connector
The MSAMv2 SMA connector provides access to external reference timing
For assembly instructions, see “Inserting MSAMs or CSAMs into the 6000A base unit
or DMC” on page 35.
CAUTION: DAMAGE TO COMPONENTS
Use caution when connecting the cable to the SMA connector. Over-tightening could damage internal components. Finger tighten only.
MSAM PIMS
Table 7 lists the PIMs available for testing from various interfaces using the MSAM.
Table 8MSAM PIMs
Catalog NumberDescription
CPHSDATAData communications PIM with universal data
CPCDIDiphase PIM with dual BNC connectorsC0404
CPDS1BANTDS1 jitter capable PIM with Bantam connector
CPE1BNCE1 jitter capable PIM with BNC connector
communications connector.
A DS1 PIM is shown in Figure 15 on page 22.
An E1 PIM with a BNC connector is shown in
Figure 16 on page 23.
Compatible
Chassis
C0404
C1004
C0404-v2
C1010-v2
C1004
C0404-v2
C1010-v2
All
All
CPE1RJ48E1 jitter capable PIM with RJ-48 connectorAll
CPE3DS3BNCE3/DS3/STS-1 jitter capable PIM
All
An E3/DS3/STS-1 PIM is shown in Figure 17
on page 23.
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Table 8MSAM PIMs (Continued)
Chapter 1 Overview
About the MSAM Assembly
Catalog NumberDescription
CPE4STM1BNCE4/STM-1e jitter capable PIM with
BNC connector
An E4/STM1(e) PIM is shown in Figure 18 on
page 23.
CPSFPSFP PIM
Provides two transceiver ports, allowing you
to insert two transceivers designed to support
different wavelengths. Only one transceiver
can be used for testing at a time.
An SFP PIM is shown in Figure 12 on
page 19.
CPSFPPLUSSFP+ PIM
Provides two transceiver ports, allowing you
to insert two SFP or SFP+ capable transceivers designed to support different wavelengths.
CPXFPXFP PIM
Provides one transceiver port.
An XFP PIM is shown in Figure 12 on
page 19.
Compatible
Chassis
All
All
All
C1000
C1004
C1000LB
C1010-v2
CPRJSYNCESyncE PIMAll
Photos of the HS Datacom and Diphase PIMs are provided in Figure 13 and Figure 14.
Figure 13 Datacom PIM
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Chapter 1 Overview
About the MSAM Assembly
Figure 14 Diphase PIM
Photos of the DS1, E1 BNC, E1 RJ-48, E3/DS3/STS-1, and E4/STM-1e PIMs are
provided in Figure 15 on page 22 through Figure 18 on page 23.
Figure 15 DS1 PIM
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Figure 16 E1 BNC PIM
Chapter 1 Overview
About the MSAM Assembly
Figure 17 E3/DS3/STS-1 PIM
Figure 18 E4/STM1(e) PIM
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Chapter 1 Overview
MSAM or
CSAM slot
MSAM or
CSAM slot
About the DMC Assembly
For assembly instructions, see “Inserting, removing, and swapping PIMs in the MSAM”
on page 37.
Restrictions
With the introduction of the MSAMv2, 6000Av2, and 8000v2, new applications are
enabled due to variations in the design. If you require voice support for DS VF and VoIP
you are encouraged to use a MSAMv2 with all versions of the 6000A and 8000 mainframes.
About the DMC Assembly
The DMC chassis is used with the T-BERD ⁄ MTS 8000 base unit. It provides two
MSAM or CSAM slots, allowing you to insert two MSAMs and up to four PIMs, or two
CSAMs. This provides connections for testing up to four independent circuits simultaneously.
Figure 19 T-BERD ⁄ MTS 8000 base unit with a
Figure 19 shows a DMC connected to a base unit. For assembly instructions, see
“Connecting a DMC to a base unit” on page 28.
Base unit requirements
DMC
if you intend to test using two MSAMs or CSAMs in a DMC chassis, verify that the
T-BERD ⁄ MTS 8000 base unit satisfies the requirements stated in Table 9 on page 28.
If your base unit does not satisfy the DMC requirements, contact Viavi
for instructions on returning the base unit for a factory upgrade. For details, see
“Returning equipment to Viavi” on page 263.
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Customer Care
Page 49
Chapter 1 Overview
Viavi recommended optical adapters and transceivers
Restrictions
With the introduction of the MSAMv2 and 8000v2, new applications are enabled due to
variations in the design. If you require voice support for DS VF and VoIP you are
encouraged to use a MSAMv2 with all versions of the 8000 mainframes.
Viavi recommended optical adapters and transceivers
To ensure proper operation of your instrument during testing, we strongly recommend
purchasing the required adapters and transceivers from Viavi. These components have
been tested to verify that they will perform reliably with our test instruments.
A list of recommended optics can be found by selecting Recommended Optics from
the Help menu. Or you can obtain the list by contacting
tacting
Viavi via the company web site, www.viavisolutions.com.
Viavi Customer Care, or con-
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Chapter 1 Overview
Viavi recommended optical adapters and transceivers
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Chapter 2 Assembling Your Instrument
This chapter explains how to assemble the components of your T-BERD / MTS 5800,
MSAM, or CSAM before testing. Topics discussed in this chapter include the following:
•“Preparing for assembly” on page 28
•“Connecting a DMC to a base unit” on page 28
•“Inserting MSAMs or CSAMs into the 6000A base unit or DMC” on page 35
•“Inserting, removing, and swapping PIMs in the MSAM” on page 37
•“Attaching an expansion module to the 5800v2/100G and 5882” on page 40
•“Handling CFP adapters and transceivers” on page 43
•“Handling SFP/SFP+, XFP, and QSFP+ transceivers” on page 48
•“Attaching an external optical connector” on page 51
2
•“Disconnecting the DMC” on page 52
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Chapter 2 Assembling Your Instrument
Preparing for assembly
Preparing for assembly
Before you unpack the components that comprise your test instrument, review the
following instructions in Chapter 1 “Overview”:
•“Unpacking the components” on page 5
•“Inspecting the components for damage” on page 6
Connecting a DMC to a base unit
Before connecting your DMC to a T-BERD ⁄ MTS 8000 base unit, review the key principles and base unit requirements, and gather the proper tools.
Key principles
When connecting or disconnecting the instrument components, focus on the following
principles to ensure a secure connection and avoid damaging the connectors:
Sequence. If you are connecting a DMC to an 8000 base unit, the DMC must be
connected directly to the base unit with no modules between the base unit and the
DMC. If you are connecting two DMCs, they must be the first two modules attached,
and the first DMC must be connected directly to the base unit. You can attach additional
modules after connecting the DMC (or DMCs) to the base unit.
Alignment. Ensure that the holes on the corners of the DMC, or Battery Module are
aligned with the holes on the component you are attaching it to. For example, if you are
attaching the DMC to the base unit, ensure that the holes of the DMC are aligned with
the holes on the base unit.
Parallel position. Ensure that you are holding the DMC, or Battery Module in a position
parallel to the base unit or DMC. If either module is held at even a slight angle, there is
a risk of damage to the connectors.
Proper torque. Ensure that you tighten the screw using the hex key (for the DMC) or
a flat blade screwdriver (for the Battery Module) until you feel a slight resistance, and
then tighten it using an additional 1/4 turn. If you are using a torque wrench, apply
1.5 N-m (13.3 in-lb) to the final turn.
Verifying the base unit requirements
Before connecting a DMC to a base unit, verify that the base unit satisfies the requirement stated in Table 9.
Table 9T-BERD ⁄ MTS 8000 base unit requirements
RequirementDMC
Serial number of 336 or aboveX
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Table 9T-BERD ⁄ MTS 8000 base unit requirements
RequirementDMC
Touch screenX
Hard driveX
BERT Software Version 5 or above
BERT Software Version 7.0 or above
BERT Software Version 8.0 or aboveX
1
BERT Software Version 14.0 or above
400MHz CPUX
1000MHz CPU
256 MB DRAMX
2GB DRAM
1. Software version 8.0 can also be run on the MSAM assemblies.
Chapter 2 Assembling Your Instrument
Connecting a DMC to a base unit
To verify the requirements on a base unit
1Press the SYSTEM/HOME key.
NOTE:
Depending on the version of T-BERD ⁄ MTS 8000 base unit you have, the
key may be labeled SYSTEM or may be labeled HOME (on UIMv2).
2To verify the current BERT software version, select the Help Page soft key.
Under Software Version Information, observe the BERT software version.
–If the software version is lower than Version 5.0, you must upgrade the soft-
ware on your base unit before connecting a Version 2 Transport Module.
–If the software version is lower than Version 7.0, you must upgrade the soft-
ware on your base unit before connecting a Version 3 Transport Module.
–If the software version is lower than Version 8.0, you must upgrade the soft-
ware on your base unit before connecting a DMC.
3To verify the CPU speed and DRAM, select the Services Data soft key.
Under Services Data, check the CPU speed and the Memory.
If your base unit does not meet the requirements stated above, contact Viavi Customer
Care for assistance.
Required tools
•Large, flat blade screwdriver. You will need a large, flat blade screwdriver to
remove and then replace the battery module on the base unit.
•Hex key. A hex key is provided in a groove on the inside panel of the battery
module. This key is used to secure and then tighten the screws that connect the
DMC to the base unit.
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Chapter 2 Assembling Your Instrument
Hex Key
groove
Base Unit Mating Connector
Connecting a DMC to a base unit
Connecting the components
To connect the DMC to a base unit
1Verify that power is OFF on your base unit and the power adapter is unplugged.
2Using the large flat blade screwdriver, loosen each of the 4 slotted bolts on the
back panel of the battery module (attached to the base unit).
3Disconnect the battery module from the base unit, and then remove the hex key
from the groove on the inside panel of the battery module. See Figure 20.
Figure 20 Hex key groove in battery module
4The base unit and
Figure 21 Base Unit Mating Connector
DMC
have rectangular mating connectors.
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Chapter 2 Assembling Your Instrument
DMC Mating Connector
Connecting a DMC to a base unit
These connectors must be aligned carefully before connecting the module to the
base unit.
Figure 22 DMC Mating Connector
aTo align the connectors properly, place the base unit with the screen side
down on your work surface. The mating connector on the back panel should
be facing you, at the top side of the unit
bPosition the DMC over the base unit, with the DMC’s mating connector
directly over the mating connector on the base unit.
cVerify that the holes on each corner of the DMC are aligned precisely with the
holes on each corner of the base unit.
dIMPORTANT: Verify that you are holding the DMC in a position parallel to the
base unit. If the module or DMC is tilted at even a slight angle, the mating
connectors may not connect properly.
eSlowly lower the DMC until it is just over the holes on the base unit, and then
gently but firmly press the center of the module to attach it to the base unit.
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Chapter 2 Assembling Your Instrument
1
2
3
4
Connecting a DMC to a base unit
5Starting at the upper right corner, do the following:
aUsing the hex key that you removed from the battery module, tighten screws
1 through 4 (in the sequence illustrated in Figure 23) until you feel a slight
resistance. The same sequence is used when attaching a DMC.
bAfter all four screws are tightened, using the hex key, tighten each screw at
least one additional quarter-turn in the sequence illustrated in Figure 23.
Figure 23 Sequence for securing and tightening the screws
6After the DMC is secured to the base unit, put the hex key back in the battery
module, and then do the following:
aPosition the battery module over the DMC, with the battery module’s mating
connector directly over the mating connector on the DMC.
bVerify that the holes on each corner of the battery module are aligned
precisely with the holes on each corner of the DMC.
cIMPORTANT: Verify that you are holding the battery module in a position
parallel to the DMC. If the module is tilted at even a slight angle, the mating
connectors may not connect properly.
7Slowly lower the battery module until it is just over the holes on the DMC, and
then gently but firmly press the center of the battery module to attach it to the
DMC.
8Starting at the upper right corner, do the following:
aUsing the large flat blade screwdriver, tighten screws 1 through 4 until you
feel a slight resistance. Use the same sequence illustrated for the DMC
screws in Figure 23.
bAfter all four screws are tightened, tighten each screw at least one additional
quarter-turn.
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The DMC is connected to the base unit. It is completely assembled, and can be used
for testing.
Before testing using the DMC, you must insert the MSAM(s) and the appropriate PIMs
or the CSAM(s) for the circuits you intend to test. For details, see “Inserting MSAMs or
CSAMs into the 6000A base unit or DMC” on page 35 and “Inserting, removing, and
swapping PIMs in the MSAM” on page 37.
Connecting two DMCs to a base unit
If you intend to connect two DMCs to a base unit for testing, verify that you are using
an AC power adapter that can support your instrument assembly.
ous power adapters available for your instrument, contact
contact
Viavi via the company web site, www.viavisolutions.com.
Disconnecting the DMC
Chapter 2 Assembling Your Instrument
Connecting a DMC to a base unit
To discuss the vari-
Viavi Customer Care, or
Before disconnecting the DMC from the base unit, review the “Key principles” on
page 28 for assembling the instrument. The same principals apply when disassembling
the various components.
Required tools
Large, flat blade screwdriver
You will need a large, flat blade screwdriver to remove the battery module.
Hex key (provided)
A 5 mm hex key is provided in a groove on the inside panel of the battery module. This
key is used to secure and then tighten the screws that connect the module to the base
unit.
Torque wrench (optional)
If you want to ensure that you don’t apply too much pressure when connecting or
disconnecting components, you can optionally use a torque wrench capable of applying
13.3 in-lb. A torque wrench with the ability to apply up to 20 in-lb in 0.1 in-lb increments
will be adequate. You will also need a 5 mm hex key bit for the wrench.
Disassembling the instrument
To remove the DMC from a base unit
1Verify that power is OFF on your base unit and that the power adapter is
unplugged.
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Chapter 2 Assembling Your Instrument
Press Up Bumpers
Connecting a DMC to a base unit
2Using the large flat blade screwdriver, loosen each of the 4 slotted bolts on the
back panel of the battery module (attached to the base unit), and then gently
remove the battery module.
3Use the provided hex key to loosen screws 1 through 4 in the sequence illustrated
in Figure 23 on page 32.
4Turn the base unit over so the display is facing upwards.
5Disconnect the DMC from the base unit by gently pressing upwards on the two
lower bumpers of the base unit as illustrated in Figure 40 on page 53.
Figure 24 Bumpers (Base Unit)
IMPORTANT: When lifting the base unit, be certain to apply force directly over the
base unit mating connector (illustrated in Figure 21 on page 30). The lower
bumpers are located on the front (display) panel of the base unit, and they are
parallel with the mating connector provided on the bottom (connector) panel. In
Figure 40, the base unit mating connector is not visible; it is directly above the
mating connector of the DMC.
6After the base unit is completely disengaged from the DMC, lift it up further and
place it elsewhere on your work surface.
The instrument is disassembled.
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Chapter 2 Assembling Your Instrument
Inserting MSAMs or CSAMs into the 6000A base unit or DMC
Inserting MSAMs or CSAMs into the 6000A base unit or DMC
Before inserting an MSAM or CSAM into the 6000A base unit or DMC, review the
MSAM or CSAM requirements, and gather the proper tools.
IMPORTANT:
Be certain the base unit is powered OFF and the AC power adapter is
unplugged before inserting or swapping MSAMs or CSAMs.
MSAM requirements
Before inserting an MSAM into a DMC, verify that the MSAM is labeled as DMCcompatible. If it is not, you must return it to Viavi for a factory upgrade before using it
with a DMC.
DMC-compatible MSAMs can be inserted into any T-BERD ⁄ MTS 6000A base unit or
DMC; MSAMs that are not compatible with the DMC must be used with a
T-BERD ⁄ MTS 6000A base unit. A 90W or 150W power supply is also required.
CSAM requirements
When using a CSAM in a T-BERD ⁄ MTS 6000A base unit, the base unit must be a
6000Av2, and the module carrier within the 6000Av2 must be an E6300. A 150W power
supply is also required.
If the CSAM is not compatible with the module carrier of the 6000Av2, the software will
prevent you from using the instrument to test.
Required tools
You will need a large, flat blade screwdriver to secure the MSAM or CSAM in the
T-BERD ⁄ MTS 6000A base unit or the DMC chassis.
Inserting the MSAM or CSAM
To insert the MSAM or CSAM
1Verify the following:
–Power is OFF on your base unit.
–The AC power adapter is unplugged.
2Place the base unit on a flat surface, with the screen facing down, and the appli-
cation module slots on the base unit or DMC chassis facing towards you.
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Chapter 2 Assembling Your Instrument
Screw
Ejection
Button
Ejection
Button
PIM
Ports
Screw
Inserting MSAMs or CSAMs into the 6000A base unit or DMC
3Hold the MSAM or CSAM with the exterior panel facing towards you. The thumb
screws should be at the top of the panel.
Figure 25 MSAM inserted into the DMC chassis
4Align the MSAM or CSAM with the application module slot, and then gently but
firmly slide it into the slot. Figure 25 shows an MSAM in a DMC application
module slot; a similar slot is also available on the T-BERD ⁄ MTS 6000A base unit.
5Place your thumbs just below each of the thumbscrews on the top of the panel,
then push the MSAM or CSAM into the slot until the exterior panel is flush with the
side panel of the base unit or DMC chassis (see Figure 26 and Figure 27).
Figure 26 Fully inserted
MSAM
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Chapter 2 Assembling Your Instrument
Inserting, removing, and swapping PIMs in the MSAM
Figure 27 DMC with CSAM inserted (left) and MSAM v2 inserted (right)
6Using the screwdriver, tighten each screw. You can also use your fingers to
tighten the screws; however, using the screwdriver will ensure a more secure
connection.
The MSAM or CSAM is connected to the base unit or DMC chassis.
Inserting, removing, and swapping PIMs in the MSAM
Inserting a PIM
After connecting the MSAM to the base unit or DMC chassis, you can insert up to two
PIMs into the two ports provided on the MSAM. The PIM(s) will provide the physical
interfaces that you need to connect to the circuit for testing.
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Chapter 2 Assembling Your Instrument
Inserting, removing, and swapping PIMs in the MSAM
To insert a PIM into the MSAM
1Verify that the MSAM is designed to support the PIM that you intend to insert by
doing the following:
–If you are inserting an SFP PIM, it will work with any available MSAM chassis,
in any port. Simply look at the PIM label to verify that it is an SFP PIM.
Figure 28 SFP PIM and SFP transceivers
–If you are inserting an XFP PIM, it requires a high rate MSAM chassis. These
chassis are labeled with a C1000, C1004, C0400-v2, C0404-v2, or C1010-v2
model number on the exterior panel. After verifying that the chassis can
support the PIM, look at the PIM label to verify that it is an XFP PIM.
Figure 29 XFP PIM and XFP transceiver
2Place the base unit on a flat surface, with the screen facing down, and the exterior
panel of the MSAM facing towards you.
3If you are inserting the PIM into a dual port chassis, determine which port to insert
the PIM into.
–If you are inserting an SFP PIM, you can use any port (all MSAM ports
support 10 Mbps to 4 Gbps interfaces).
–If you are inserting an XFP PIM, in most instances you must use the left port
(labeled Port #1).
–If you have a dual 10G MSAMv2 (labeled C1010-v2), you can insert the XFP
PIM on either port.
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Chapter 2 Assembling Your Instrument
Inserting, removing, and swapping PIMs in the MSAM
4After verifying that the port is designed to support the same physical interface(s)
as the PIM, align the PIM with the transceiver cages facing you, and the internal
connectors facing down towards the interior of the port.
5Insert the PIM into the port (see Figure 30).
Figure 30 XFP PIM in Port #1
6Push the PIM into the port until the PIM panel is flush with the exterior panel of the
chassis, and the PIM ejection button pops out.
The PIM is inserted.
Removing a PIM
There are two types of PIMs: single port and dual port. The single port PIMs fit into a
single port (for example, the DS1 PIM); dual port PIMs are wider and use both ports (for
example, the datacom PIM). Thus, there are slightly different ways to remove the PIMs.
To remove a single port PIM
1On the exterior panel of the MSAM chassis, press the PIM ejection button.
The PIM is released.
2Pull the PIM out of the port.
To remove a dual port PIM
1Rotate the long front lever. This will press both of the PIM ejection buttons.
The PIM is released.
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Chapter 2 Assembling Your Instrument
Attaching an expansion module to the 5800v2/100G and 5882
2Pull the PIM out of the ports.
The PIM is removed from the MSAM chassis.
Swapping PIMs
If you need to swap PIMs during testing, you must turn the BERT (MSAM) module off,
remove one PIM, and then insert another. If you are swapping PIMs in two MSAMs in
the DMC, be certain to turn the BERT (MSAM) module off for both MSAMs. You do not need to turn OFF the instrument.
NOTE:
If you do not turn the BERT (MSAM) module off, you will lose the settings for
the last test you configured, and your MSAM may not launch the expected test
application automatically when you insert a different PIM.
To swap P I M s
1Press the SYSTEM/HOME button to display the System screen, then turn the icon
representing the BERT (MSAM) module off. The BERT (MSAM) module can be
toggled on or off by selecting the BERT icon. When off, the icon is grey.
2Press the Results soft key to go to the MSAM status screen, and then verify that
the module is off by observing the Message bar at the top of the screen. When off,
the message states:
BERT Module OFF
3After verifying that the BERT (MSAM) module is off, remove the PIM (see
“Removing a PIM” on page 39).
4Insert the new PIM (see “Inserting, removing, and swapping PIMs in the MSAM”
on page 37).
5On the System screen, turn the BERT module back on. When on, the icon is
yellow.
The PIMs are swapped.
Attaching an expansion module to the 5800v2/100G and 5882
If you have an optional expansion module for your T-BERD / MTS 5800v2/100G or
5882 (for example, an OTDR Module or Timing Expansion Module), follow the instructions on how to attach it.
To attach a module to your instrument
1Power down the instrument and disconnect the AC power adapter.
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Chapter 2 Assembling Your Instrument
Attaching an expansion module to the 5800v2/100G and 5882
2Remove the four screws that hold the back cover in place.
3Lift off the back cover to expose the connector.
4Notice the hinges on the module.
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Chapter 2 Assembling Your Instrument
Attaching an expansion module to the 5800v2/100G and 5882
5Insert the module hinges into the instrument at about a 45 to 60 degree angle.
6Pivot the module down towards the connector.
eat the module into the connector with slight pressure.
7S
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Chapter 2 Assembling Your Instrument
Handling CFP adapters and transceivers
8Tighten the screws on the module.
Power up the instrument. Menus related to the attached module are now available.
Handling CFP adapters and transceivers
Inserting a CFP adapter
CFP adapters allow you to use a port designed to support a larger CFP transceiver for
a smaller CFP transceiver. For example, a CFP2 to CFP4 adapter (shown in Figure 31)
can be inserted into the CFP2 port of the CSAM to provide the physical interface that
you need to connect a CFP4 to the instrument. The release lever shown at the left of
the adapter must be pulled up before removing the adapter from a port
Figure 31 CFP2 to CFP4 Adapter
.
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Chapter 2 Assembling Your Instrument
Handling CFP adapters and transceivers
Or, you can insert a CFP2 to QSFP28 adapter (shown in Figure 32) into the CFP2 port
of the CSAM.
Figure 32 CFP2 to QSFP28 Adapter
NOTE:
Details concerning the inserted adapter used for the currently selected application appear on the CFP2 Interface setup tab. Details concerning the QSFP28
inserted into the adapter appear on the QSFP Interface setup tab.
To insert a CFP adapter
1Ensure that the CSAM is connected to the DMC or base unit.
2Verify that the CSAM is designed to support the CFP adapter that you intend to
insert.
3After verifying that you have the correct adapter, do the following:
aPosition the instrument with the display facing towards you and the connector
panel on the top.
bWith the identification label facing you, align the adapter in the slot, and then
gently but firmly insert the adapter
until the adapter panel is flush with the
exterior panel of the chassis.
CAUTION: DAMAGE TO UNIT
If you feel any resistance when first inserting the adapter into the slot (or
when tightening the retaining screws, if applicable), do not force the adapter any further. The bottom of the adapter may be obstructed.
If this occurs, do the following:
•Remove the adapter.
•Visually inspect the adapter for any mechanical impediments to proper
insertion. If impediments are identified, repair or replace the defective
part.
•Verify that you are inserting the adapter correctly (for example, with the
label facing you).
•Reinsert the adapter.
4Tighten the retaining screws (if equipped) until they are finger tight.
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The CFP adapter is inserted.
Inserting a CFP, CFP2, or CFP4 transceiver
Figure 33 through Figure 35 show the CFP transceivers used to perform 40G and/or
100G out-of-service testing over fiber circuits using your instrument.
Figure 33 CFP transceiver
Chapter 2 Assembling Your Instrument
Handling CFP adapters and transceivers
Figure 34 CFP2 transceiver
Figure 35 CFP4 transceiver
Before inserting a CFP, CFP2, or CFP4 transceiver consider the following:
•Expected optical power must not exceed the power level specified for the optical
module.
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Handling CFP adapters and transceivers
•The recommended optics are available on your unit by selecting
Help > Recommended Optics.
NOTE:
Details concerning the inserted transceiver used for the currently selected
application appear on the Interface setup tab.
To insert a CFP, CFP2, or CFP4 transceiver
1Obtain a transceiver that supports the physical interface you intend to test.
If you are not certain which interfaces a particular transceiver supports, refer to
the list of Viavi Recommended Optics.
If you can not locate the sheet, in most instances an online search using the
model number (printed on the transceiver label) will result in a number of hits
providing specifications for the transceiver.
2After verifying that you have the correct transceiver for the interface, do the
following:
aPosition the instrument with the display facing towards you and the connector
panel on the top.
bFor the CSAM, with the identification label facing you, align the transceiver in
the slot, and then gently but firmly insert the transceiver until it is seated
securely (indicated by an audible click, or by feeling the transceiver snap into
place).
CAUTION: DAMAGE TO UNIT
If you feel any resistance when first inserting the transceiver into the unit or
when tightening the retaining screws (if applicable), do not force the trans-ceiver any further. The bottom of the transceiver may be obstructed.
If this occurs, do the following:
•Remove the transceiver.
•Visually inspect the transceiver for any mechanical impediments to
proper insertion. If impediments are identified, repair or replace the
defective part.
•Verify that you are inserting the adapter correctly (for example, with the
label facing you).
•Reinsert the transceiver.
cFor TB/MTS 5800-100G with the identification label facing against you, align
the transceiver in the slot, and then gently but firmly insert the transceiver
until it is seated securely (indicated by an audible click, or by feeling the
transceiver snap into place).
dTighten the retaining screws (if equipped) until they are finger tight.
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The transceiver is inserted; be certain to cover the optical connector openings
when they are not in use.
NOTE: Laser warm up requirement
When testing 10 Gigabit, 40 Gigabit and 100 Gigabit optical circuits, some
lasers (particularly 1550 nm lasers) are temperature stabilized; and therefore
need to reach a certain temperature before you can use them to transmit a signal. This is expected behavior, and does not indicate that there is something
wrong with the laser or test instrument.
It typically takes up to one minute for the temperature to stabilize. If you have
turned the laser on, but no signal is present on the receiving instrument or
device, simply wait for one minute.
Removing a CFP, CFP2, or CFP4 transceiver
To prolong the life of your transceivers, leave the transceiver you intend to use most
frequently in the instrument until you need to replace them with transceivers designed
for a different circuit.
Chapter 2 Assembling Your Instrument
Handling CFP adapters and transceivers
To remove a CFP, CFP2, or CFP4 transceiver
1If necessary, remove any optical cables that are currently connected to the trans-
ceiver. If you need to remove a cable, do the following:
aPress the release latch on the cable.
bGrasp the cable connector near the connection point.
cGently pull the cable connector from the transceiver.
dInsert a dust plug into the open end of the transceiver.
2Remove any external timing reference cables. If you need to remove an external
timing reference cable do the following:
aGrasp the plug close to the panel.
bLoosen by turning the connector counter-clockwise.
cWhen connector threads are fully disengaged, pull the plug straight off the
jack.
3Loosen the retaining screws securing the transceiver into the instrument or flip out
bail handle.
4Hold onto the retaining screws or bail handle and remove the transceiver from the
instrument using a steady, gentle pressure.
The transceiver is removed. Be certain to store it in an anti-static bag.
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Chapter 2 Assembling Your Instrument
Handling SFP/SFP+, XFP, and QSFP+ transceivers
Handling SFP/SFP+, XFP, and QSFP+ transceivers
If you have a 5800, CSAM, MSAM chassis, you can insert transceivers designed for
testing a variety of optical circuits. Examples of SFP and QSFP transceivers are
provided in Figure 36 and Figure 37.
•The 5800v1 accept SFP transceivers.
•The 5800v2, 5882 and CSAM accept SFP/SFP+ transceivers.
•The 5800-100G accepts QSFP+/QSFP28 and SFP/SFP+/SFP28 transceivers.
Each of these pluggable transceiver modules has similar insertion characteristics.
Figure 36 shows a Copper SFP (used to test copper over 10GigE LAN circuits).
Figure 36 Copper SFP
Figure 37 shows the QSFP transceiver+ used to perform out of service testing over
40GE fiber circuits.
Figure 37 QSFP+ transceiver (40GE circuits)
Inserting an SFP/SFP+, XFP, or QSFP+ transceiver
Before inserting an SFP/SFP+, XFP, or QSFP+ transceiver, consider the following:
•Applied power must not exceed the power level specified on the panel for each
optical connector.
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Chapter 2 Assembling Your Instrument
Handling SFP/SFP+, XFP, and QSFP+ transceivers
•Use only the transceivers and adapters that shipped with your instrument, or
those that are identified on the list of Viavi supported optics that shipped with your
instrument. The recommended optics are also available on your instrument by
selecting Help > Recommended Optics. Many of these transceivers and
adapters can be purchased from Viavi.
•Verify that the transceiver, adapter (if applicable), and the connector on the instrument support the same physical interface. For example, if you intend to connect a
CSAM to a 100G Ethernet circuit, verify that you are inserting a CFP transceiver
(or adapter) into the CFP2 port of the CSAM. If you inserted a CFP2 adapter,
verify that you are inserting the appropriate transceiver for the adapter (CFP4 or
QSFP28).
NOTE:
Details concerning the inserted transceiver used for the currently selected
application appear on the Interface setup tab.
To insert a SFP/SFP+, XFP, QSFP+, or QSP28 transceiver
1Obtain a transceiver from Viavi that supports the physical interface you intend to
test.
If you are not certain which interfaces a particular transceiver supports, refer to
the list of Viavi Recommended Optics.
If you can not locate the sheet, in most instances an online search using the
model number (printed on the transceiver label) will result in a number of hits
providing specifications for the transceiver.
2After verifying that you have the correct transceiver for the interface, do the
following:
aPosition the instrument with the connector panel facing towards you.
bEnsure that the bale-clasp latch on the transceiver is closed as illustrated in
Figure 38. The bale-clasp latch handle should be on top of the transceiver
module.
Figure 38 Transceiver (SFP shown) with closed bail-clasp latch
cWith the identification label facing away from you, align the transceiver with
the connector cage, and then gently but firmly insert the transceiver until it is
seated securely (indicated by an audible click, or by feeling the transceiver
snap into place).
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Handling SFP/SFP+, XFP, and QSFP+ transceivers
CAUTION: DAMAGE TO UNIT
If you feel any resistance when first inserting the transceiver into the cage,
do not force it any further. The bottom of the transceiver may be obstructed
by the latch tab in the cage, and forcing it any further may damage the cage.
If this occurs, do the following:
•Remove the transceiver, then push the latch tab in the cage down.
•Verify that you are inserting the transceiver correctly (for example, with
the label facing away from you).Verify that the bale-clasp latch on the
transceiver is completely closed, realign it with the cage, and then insert
it again.
The transceiver is inserted; be certain to cover the optical connector openings when
they are not in use.
NOTE: Laser warm up requirement
When testing 10G, 40G, or 100G optical circuits, some lasers (particularly 1550
nm lasers) are temperature stabilized; and therefore need to reach a certain
temperature before you can use them to transmit a signal. This is expected
behavior, and does not indicate that there is something wrong with the laser or
test instrument.
It typically takes up to one minute for the temperature to stabilize. If you have
turned the laser on, but no signal is present on the receiving instrument or
device, simply wait for one minute.
Removing an SFP/SFP+, XFP, or QSFP+ transceiver
To prolong the life of your transceivers, leave the transceiver you intend to use most
frequently in the instrument until you need to replace them with transceivers designed
for a different circuit.
To remove an SFP/SFP+, XFP, or QSFP+ transceiver
1If necessary, remove the dust cover, or any cables that are currently connected to
the transceiver. If you need to remove a cable, do the following:
aPress the release latch on the cable.
bGrasp the cable connector near the connection point.
cGently pull the cable connector from the transceiver.
dInsert a dust plug into the open end of the transceiver.
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2Open the bail-clasp latch (as illustrated in Figure 39), and grasp the latch and pull
gently upwards to remove the transceiver from the cage.
Figure 39 Transceiver (SFP shown) with open bail-clasp latch
The transceiver is removed. Be certain to store it in an anti-static bag.
Attaching an external optical connector
Chapter 2 Assembling Your Instrument
Attaching an external optical connector
Some instruments also use external optical connectors. Before attaching an external
connector to your instrument, be certain the connector is clean. If the external
connector is new, or has been used with clean, defect-free fiber connectors and capped
when not in use, it does not typically require cleaning.
If you suspect poor performance is due to a dirty cable, connector, or optical jack, make
sure you clean them.
To attach an external optical connector
1Verify that the laser is turned OFF on the instrument.
2Verify that the locking lever of the connector is in a released position.
3Pinch the connector with your index finger on the top of the locking lever, and your
thumb on the bottom of the connector.
4Align the connector squarely with the four sides of the optical connector on the
panel.
NOTE:
If you insert the connector at an angle you risk damaging the connector.
5Insert the connector into the optical connector on the panel, and then lock the
shell in place by rotating the locking lever upwards until you hear a click.
The connector is attached. Be certain to cover it with a dust cap if you don’t intend to
begin testing immediately.
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Chapter 2 Assembling Your Instrument
Disconnecting the DMC
Disconnecting the DMC
Before disconnecting the DMC from the base unit, review the “Key principles” on
page 28 for assembling the instrument. The same principals apply when disassembling
the various components.
Required tools
Large, flat blade screwdriver
You will need a large, flat blade screwdriver to remove the battery module.
Hex key (provided)
A 5 mm hex key is provided in a groove on the inside panel of the battery module. This
key is used to secure and then tighten the screws that connect the module to the base
unit.
Torque wrench (optional)
If you want to ensure that you don’t apply too much pressure when connecting or
disconnecting components, you can optionally use a torque wrench capable of applying
13.3 in-lb. A torque wrench with the ability to apply up to 20 in-lb in 0.1 in-lb increments
will be adequate. You will also need a 5 mm hex key bit for the wrench.
Disassembling the instrument
To remove the DMC from a base unit
1Verify that power is OFF on your base unit and that the power adapter is
unplugged.
2Using the large flat blade screwdriver, loosen each of the 4 slotted bolts on the
back panel of the battery module (attached to the base unit), and then gently
remove the battery module.
3Use the provided hex key to loosen screws 1 through 4 in the sequence illustrated
in Figure 23 on page 32.
4Turn the base unit over so the display is facing upwards.
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Chapter 2 Assembling Your Instrument
Press Up Bumpers
Disconnecting the DMC
5Disconnect the DMC from the base unit by gently pressing upwards on the two
lower bumpers of the base unit as illustrated in Figure 40 on page 53.
Figure 40 Bumpers (Base Unit)
IMPORTANT: When lifting the base unit, be certain to apply force directly over the
base unit mating connector (illustrated in Figure 21 on page 30). The lower
bumpers are located on the front (display) panel of the base unit, and they are
parallel with the mating connector provided on the bottom (connector) panel. In
Figure 40, the base unit mating connector is not visible; it is directly above the
mating connector of the DMC.
6After the base unit is completely disengaged from the DMC, lift it up further and
place it elsewhere on your work surface.
The instrument is disassembled.
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Chapter 2 Assembling Your Instrument
Disconnecting the DMC
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Chapter 3 Getting Started
This chapter explains how to start using your instrument, and describes the user interface. Topics discussed in this chapter include the following:
•“Powering the instrument” on page 56
•“Launching the MSAM or CSAM” on page 60
•“Navigating the user interface” on page 62
•“Setting up the instrument” on page 70
•“Connecting your instrument to the circuit” on page 79
3
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Powering the instrument
Powering the instrument
Power is supplied to the instrument by the battery or the AC power adapter supplied
with the application module (MSAM, or CSAM) or DMC. For the 5800, the adapter is
supplied with the instrument. Use of AC power adapters or batteries other than those
supplied with your 5800, application module, or DMC is not recommended as other
slices/modules may be supplied with incompatible adapters or batteries.
When supplying power using an AC power adapter, consider the following:
•Multiple (“Stacked”) DMCs — If you intend to test by connecting multiple DMCs to
a single T-BERD ⁄ MTS 8000 base unit, you will need an adapter that provides
more than the standard 150 Watts.
•Two MSAMs — If you intend to test by using two MSAMs in one DMC module in a
single T-BERD ⁄ MTS 8000 base unit, you must connect the AC power adapter
that shipped with the DMC.
•Two CSAMs — If you intend to test by using two CSAMs in one DMC module in a
single T-BERD ⁄ MTS 8000 base unit, you must connect the AC power adapter
that shipped with the DMC.
To discuss the various power adapters available for your instrument, contact Viavi
Customer Care, or contact
Viavi via the company web site,www.viavisolutions.com.
Verifying that you have the correct adapter
The following figure shows the labels on the adapter that ship with T-BERD/MTS
5800v2, 5800-100G and SC 4800/4800P test instruments.
Figure 41 5800v2, 5800-100G, 5882 and 4800/4800P Adapter Labels
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Powering the instrument
Figure 42 shows the label on the adapter that shipped with the T-BERD/MTS 5800v1
test instruments.
Figure 42 Adapter label
Figure 43, Figure 44 and Figure 45 show the labels provided on the adapters that ship
with the DMC and MSAM.
Figure 43 DMC adapter label
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Powering the instrument
Figure 44 MSAM Adapter label
Figure 45 40/100G Power Adapter label
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Using the AC power adapter
To supply power using the AC power adapter
1Verify that the AC power adapter is the one that shipped with your application
module, DMC, 5800 or 4800 (see “Verifying that you have the correct adapter” on
page 56).
2Plug the adapter into the power supply jack.
–The jack for the DMC is located on the bottom right-hand corner of the unit.
–The jack for the MSAM or CSAM is located on:
-the top panel of the unit, or
-the bottom right-hand corner of the DMC.
–The jack for the T-BERD / MTS 5800 and SC 4800 families is located on the
bottom right side of the unit.
3Plug the opposite end of the adapter into the power mains.
Chapter 3 Getting Started
Powering the instrument
Power is supplied using the adapter.
For specifications, see “Power supply specifications” on page 178.
Turning on the instrument
To powe r t h e ins t r u me n t
•Press the ON/OFF key.
The On LED, located on the front panel, illuminates green when the unit is powered,
and the instrument beeps.
Turning off the instrument
To turn off the instrument
•Press the ON/OFF key.
The On LED, located on the front panel, extinguishes when the unit turned off, and the
instrument beeps.
Charging the battery
In most instances, the battery charges automatically when you supply power to your
instrument using the AC power adapter. In some instances, the instrument may not
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Chapter 3 Getting Started
Launching the MSAM or CSAM
automatically charge the battery because the power supplied via the AC Adapter is
required to:
•Support high speed applications (for example, OTU2, OTU3, and OTU4 applications).
•Support multiple tests running concurrently; particularly when using an MSAM
with an XFP SIM.
•Support optical Jitter applications.
6000A Charge LED
The Charge LED on the front of the 6000A base unit behaves as follows when testing
using an MSAM:
Table 10 Charge LED behavior
Scenario
Power supplied by adapter
LED
State
1
ONThe battery is charging.
Indicates
OFFThe battery is not charging.
Power supplied by battery
only
ONThe battery has six minutes or less of power avail-
able. If the Charge LED illuminates when operating
on battery power, supply power using the adapter
immediately.
OFFThe battery has more than six minutes of power
available.
1. When running OTU2 applications, or multiple tests on an MSAM with one application that requires an XFP PIM, the instrument does
not charge the battery - even when the adapter supplies power. When you launch these applications, the Charge LED extinguishes to
alert you that the battery is not charging. Applications that use the XFP PIM include 10 Gigabit LAN, 10 Gigabit WAN, 10 Gigabit Fibre
Channel, OC-192 SONET, STM-64 SDH, and OTU2 OTN.
Launching the MSAM or CSAM
If the MSAM, or CSAM was launched during your last test session (when you turned
the power OFF), the instrument launches it automatically when you turn power back
ON. If the module was off when you turned power OFF, you must actively launch it after
you turn power back ON.
Multiple BERT icons
The MSAM and CSAM are all represented by a “BERT” icon on the System screen. If
you are using a DMC with two MSAMs, two CSAMs, or one of each, two BERT icons
appear on the screen (one for each MSAM and CSAM). If you stack multiple DMCs on
a single T-BERD ⁄ MTS 8000 base unit, an icon appears for each MSAM, or CSAM.
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When multiple BERT icons are available, a yellow icon indicates which module is
active; a green outline surrounding a yellow icon indicates that the instrument is
currently providing the user interface for that particular module (in other words, it is the
module in focus).
About the Jitter icon
If your instrument is configured and optioned for optical jitter/wander testing, before
launching the module, consider the following:
•Connect the AC power adapter to the power mains before launching the optical
jitter/wander function (see “Powering the instrument” on page 56).
•Turning on the JITTER icon also automatically turns on the BERT function.
•To conserve power, if you are no longer testing optical jitter or wander, turn off the
JITTER icon. All other “BERT” functions will still be available.
Chapter 3 Getting Started
Launching the MSAM or CSAM
Turning the BERT icon ON
To tu r n a BERT ico n O N
1Press the ON/OFF button.
The unit loads the 8000 Base Unit or 6000A Base Unit software, and then the
following occurs:
–The screen goes blank for a few seconds.
–The Presentation page for the base unit appears.
–If the Transport Module, MSAM, or CSAM was launched during your last test
session (when you turned the power OFF), the Viavi BERT MODULES
STARTUP screen appears, indicating the progress of the software load.
When the load reaches 100%, the Main screen appears. The
Transport Module, MSAM, or CSAM is launched; proceed to step 3.
–If the Transport Module, MSAM, or CSAM was not launched during your last
test session (when you turned the power OFF), the Viavi BERT MODULES
STARTUP screen appears, instructing you to press the SYSTEM/HOME
button. Proceed to step 2.
2Press the SYSTEM/HOME button.
The System screen appears. The MSAM or CSAM is represented by a BERT
icon.
3If the icon for the function you want to launch is not already outlined in green,
select the icon by doing one of the following:
–Use the touch screen to select the icon.
–Use the arrow key to select the icon.
The icon is highlighted in green when selected.
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Category
Group
Result Window
Menu Bar
Message Bar
Quick Config
LED Panel
Actions Panel
Te st
Battery
Indicator
Soft keys
Navigating the user interface
4After the icon is selected (highlighted in green), do one of the following to turn the
module ON.
–Use the touch screen to select the icon a second time.
–Press the Enter key.
The interface highlights the icon in yellow, and the MSAM or CSAM launches.
5Press the RESULTS button.
The Viavi BERT MODULES STARTUP screen appears, indicating how far the
software load has progressed. When the load reaches 100%, the Main screen
appears.
The MSAM, or CSAM is launched.
NOTE:
After you launch the
MSAM or CSAM, you can use the SYSTEM/HOME button
at any time to return to the System screen to change settings (such as the
screen saver). Pressing the SETUP or RESULTS button will then return you to
the corresponding application screen.
Navigating the user interface
The user interface lets you set up the instrument, configure tests, and display test
results. See Figure 46.
Figure 46 Main screen (Ethernet application)
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For descriptions of the physical control buttons on the front panel of the base unit, refer
to the 8000 Base Unit User Manual or the 6000A Base Unit User Manual.
Menu Bar
The menu bar provides the following menus:
Tes t
Use the options listed on the Test menu to select your test application.
For example, to transmit patterns in a STS-48c Bulk BERT payload over an OC-48
circuit, select:
Use the options listed on the View menu to change the format of the Main screen.
Options are provided which allow you to change the result layout and hide or display a
variety of items on the Main screen, such as the Message bar, LED panel, Signal Structure (graphical display), and the Actions panel. An option is also available which allows
you to toggle between tests running on different ports.
Reports
Use the options on the Reports menu to create, view, and export custom reports for
your module. You can also enable and configure automatic reports and test restarts
after automatic report generation using the Automatic Reports option.
Tools
Use the options on the Tools menu to import or export saved test configurations, set up
your module to emulate the FST-2000 TestPad or ANT platform LEDs, and to activate
new test options on your module. The Clear History option clears all historical LEDs.
Help
Use the Help menu to launch a help system with each of the topics discussed in the
testing manual, or to view signal connections.
Soft keys
The soft keys located on the right side of the graphical user interface provide quick
access to setup screens and the result display.
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Chapter 3 Getting Started
Navigating the user interface
Setup/Results
The top key (Setup/Results) is used to toggle between the Setup screens and the Main
(Result) screen. When the Main screen is displayed, the Setup key appears; when the
setup screens are displayed, the Results key appears. For descriptions of setup
parameters and test results, refer to the testing manual for your instrument.
A Restart soft key is also provided which allows you to restart a test (and clear results).
Additional soft keys appear when appropriate for the selected test application which
allow you to run a variety of scripts designed to simplify testing.
Menu Keys
The seven menu keys located on the right side of the front panel perform the same
functions as the softkeys immediately to their left on the graphical user interface. If your
unit does not have a touch screen, use these buttons to access the setup screens,
restart tests, and perform other functions specific to your test application.
Tes t B a r
The Test Bar displays the current test application selected on the unit. For example, if
you selected the Layer 4 Multiple Streams application for a 10GigE LAN circuit, the
following appears in the Test Bar:
10GigE LAN Layer 4 Streams Term
If your instrument is configured with two ports for a particular rate, the currently selected
port also appears at the beginning of the text.
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Message Box
The Message Box displays the duration of the currently running test and indicates
whether any messages related to the test have been generated (for example, to alert
you that loop ups are successful, or that your instrument has been synchronized to a
particular external timing source).
If messages exist, you can select the box to display the Message Log, which lists each
message.
Chapter 3 Getting Started
Navigating the user interface
Quick Config settings
After you select a test application, a Quick Config tab appears to the right of the
Message Box, with key settings required to configure your test. For example, if you
selected the SONET -> OC-48 -> STS-12c Bulk BERT - > Terminate application, quick
configuration settings appear that allow you to automatically detect and insert a BERT
pattern. See Figure 47.
Figure 47 Quick Config Settings
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Navigating the user interface
Signal Structure
If you are running a SONET, SDH, or OTN application, a Signal Structure tab appears
to the right of the Quick Config tab. When selected, the tab shows the structure of the
signal transmitted from the unit to the device under test (DUT) and then to another
device on the far end of the circuit (typically another test instrument). Figure 48 illustrates the signal structure when you transmit a Bulk BERT payload in an STS-12c signal
carried in an OC-48 wrapper.
Figure 48 OC-48 STS-12c Bulk BERT signal structure
LED Panel
The LEDs in the panel to the left of the Results Windows help you determine whether
a signal is present, pattern synchronization has been achieved, and other key events
have occurred when performing tests. The color of the Summary LED at the top of the
panel indicates the overall status of Summary test results supporting the application.
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Navigating the user interface
You can collapse and expand an LED panel by tapping the panel name (for example,
SONET or Ethernet). Figure 49 illustrates the LEDs supporting a 1GigE Layer 4 Traffic
test application.
Figure 49 100GigE Layer 4 Traffic LEDs
When you set up your instrument, you can indicate that the LEDs should emulate those
displayed on the user interface of the FST-2000 TestPad or the ANT platform.
•For instructions on customizing the LED panel, see “Customizing the user inter-
face look and feel” on page 74.
•For descriptions of each of the LEDs, refer to the Test Results chapter in the
testing manual that shipped with your instrument.
Current and history LEDs
The round LEDs on the inside column provide the current state of the key event; the
square LEDs on the outside column provide the historical state (in other words, the
event occurred in the past).
LED colors
Green LEDs indicate an event occurred as expected, yellow LEDs indicate that an
event occurred that warrants additional investigation, and red LEDs indicate that an
error, anomaly, alarm, or defect has occurred.
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Navigating the user interface
LEDs for muxed payloads
When testing muxed payloads, panels appear for each of the payloads (in addition to
the LEDs for the interface rate). For example, if you are testing an E1 BERT payload
carried in a DS3 signal, a DS3 panel and a E1 panel appear.
10 Gigabit Ethernet WAN LEDs
When testing 10 Gigabit Ethernet WAN circuits, a SONET or SDH panel and an
Ethernet panel appear.
Actions Panel
After you select a test application (using the Test menu), an Actions Panel appears
under the LED display that provides tabs with the buttons required to perform your test.
The buttons available vary depending on the test application you select. For example,
buttons may appear that allow you to start and stop transmitting Ethernet traffic, start
and stop a local loopback, or, if you selected a SONET application, allow you to specify
error, anomaly, alarm, defect, and pointer parameters for the test.
A blinking circle on a tab indicates that some action is required on your part. For
example, if you are running a BERT test, the Actions tab may blink indicating that you
need to start transmitting the BERT pattern.
If you select a test application for an optical rate, a Laser tab also appears, with buttons
that allow you to select an SFP connector for the test (if appropriate), specify the transmitted wavelength (for OC-192, STM-64, OTU-2, and 10 Gigabit Ethernet and Fibre
Channel signals), and turn the laser on and off.
If you do not see the buttons that you need to perform a test, select
View > Actions Panel on the Menu Bar, and then select the tab with the buttons that
you need. You can also hide the Action Panel on the Main screen by clearing the
View > Actions Panel selection.
NOTE:
The color of a button reflects its current state. Action buttons are highlighted in
yellow when they are turned on; they are grey when they are off.
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Result Buttons
Group and Category buttons are provided at the top of each result window. The Group
button on the left allows you to select the type of results you want to observe (for
example, Summary results); the Category button on the right allows you to select a
specific results category for the group you specified. By selecting a different group or
category for each pane, you can view multiple sets of results at the same time. See
Figure 51.
Figure 51 Result Group and Category Buttons (Ethernet application)
Result Windows
Chapter 3 Getting Started
Navigating the user interface
The test results appear in Result Windows (see Figure 52). Errors are highlighted in
red; other results appear in black.
Figure 52 Result Window (Ethernet application)
You can change the layout of the Result Windows using options provided on the View
menu. You can also choose to show just test results on the main screen by selecting
View > Show Only Results.
For test result descriptions, refer to the Test Results chapter in the Testing Manual that
supports your instrument.
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Chapter 3 Getting Started
Setting up the instrument
Setting up the instrument
Setting up the instrument involves loading new software upgrades or options, setting
up the screen saver, specifying a printer for the instrument, and indicating whether you
want your LEDs displayed using the format used on the FST-2000 TestPad format, or
the format used on the ANT platform. You can also change the instrument’s default
VNC password.
The System menu provides access to regional settings, the date and time, and display
settings. The T-BERD / MTS 5800 system menu shown in Figure 53. Details
concerning the System menu for other test instruments are provided in the 6000 or 8000 Base Unit User Manual that supports the corresponding base unit.
Figure 53 T-BERD / MTS 5800, 5800-100G System Menu
Specifying international settings
Before testing, you can specify the language and the date and time format for the user
interface.
To specify international settings
1Select the SYSTEM/HOME icon.
The System Menu appears.
2Do one of the following:
aT-BERD / MTS 5800
iSelect Region.
iiThe System Setup screen appears, listing settings that control the
appearance and behavior of your unit.
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Setting up the instrument
iiiIn the Language box, select the language for the user interface.
The formatting standard changes automatically.
ivIn the Samples for selected formatting box, the date, time, and
number formatting appear.
vIf you want to change the formatting standard, click the Change format-
ting standard box, and then select a country.
viIf you wish to do so, click the check box next to Use 24-hour time.
vii Turn the instrument off then back on.
The user interface changes to the language you specified.
bT-BERD ⁄ MTS 8000, 6000A, and 5800
iPress System Setup.
The System Setup screen appears, listing settings that control the appearance
and behavior of your unit.
iiSelect Language, and then select the language for the user interface.
iiiSelect Date Format, and then select the mm/dd/yyyy or dd/mm/yyyy
format.
ivSelect Time Format, and then select the 24 hour clock or 12 hour clock
format.
A message appears indicating that you need to reboot the unit for the settings to
take effect.
vPress the ON/OFF button to turn the unit OFF, and then press it again to
turn the unit back ON.
The unit reboots in the language you specified.
International settings are specified.
Setting the date and time
MSAM and CSAM
You can change the date and time on your instrument by editing the system settings,
and then rebooting your module. For instructions on changing the date and time, refer
to the 8000 Base Unit User Manual or 6000A Base Unit User Manual.
T-BERD / MTS 5800 and SC 4800
The T-BERD / MTS 5800 and SC 4800 have an internal clock that you can set to
provide accurate time stamps for test results.
To set the date and time
1Select the System icon.
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Chapter 3 Getting Started
Battery Indicator
Setting up the instrument
The System screen appears.
2Select Date and Time.
3Specify the Region, Country, and Area, and if you wish to do so, click the check
box for Automatically adjust for daylight savings time.
4Under Current Date & Time, do the following:
aUse the up and down arrows to specify the current local time. If you wish to
do so, click the check box next to Use 24-hour time.
bUse the calendar to select the current date.
Changing the remote access password
To change the default password
1Select the System icon.
The System screen appears.
2Select the Remote (VNC) icon.
3Select the Change Password button, then specify a new password.
For more information, refer to the 8000 Base Unit User Manual or the 6000A Base Unit
User Manual.
Checking the battery
You can check the status of the battery in two ways:
Method 1 — The battery status indicator in the upper right corner of the screen
provides a graphic indication of the approximate battery charge.
Method 2 — The Battery Level percentage on the Battery status page.
1Select the System icon.
2Select Battery.
The battery status appears.
3View the Battery Level.
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The Battery Status page indicates the charge level (both in percentage under the
battery and the color of the battery), whether the adapter is plugged in, and indicates the battery temperature range.
Setting up the display
Setting up the display includes setting the screen brightness and setting up the screen
saver.
NOTE:
Chapter 3 Getting Started
Setting up the instrument
The Display menu also allows calibration of the touchscreen. See
the T-BERD / MTS 5800 and SC 4800 touchscreen” on page 247
“Calibrating
.
Adjusting screen brightness
The following procedure describes how to adjust the screen brightness.
To adjust the screen brightness
1Select the System icon, then select Display.
2Change the brightness level by moving the slider left or right.
Setting up the screen saver
If you are operating the instrument using the battery, you should set up the screen saver
to switch off the screen automatically after the unit has not been used for a specific
interval of time. For instructions on setting up the screen saver on a MSAM, refer to the
8000 Base Unit User Manual or 6000A Base Unit User Manual. For the T-BERD / MTS
5800 and SC 4800, see below.
To set up the screen saver
1Select the System icon, and then select Display.
2To enable the screen saver, click the check box next to Enable automatic screen
saver.
3To change the message displayed as a screen saver, click in the Message field,
and then enter the message.
4To specify the time to wait until the screen saver begins, do the following:
aClick on the drop down next to the Delay field, and then specify the time unit,
for example, seconds, minutes or hours.
bClick in the Delay field. A keyboard appears. Enter the amount of time, and
then click OK. For example, if you selected minutes in the previous step,
enter the number of minutes of delay.
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5Click the check box next to Screen saver password if you wish to enable a
screen saver password (a password is required to close the screen saver and
resume using the instrument). Make a note of the password and put it somewhere
safe.
The screen saver is setup.
Customizing the user interface look and feel
You can set up the instrument to emulate the FST-2000 TestPad user interface
(TestPad mode), or the ANT platform user interface (ANT mode). This primarily impacts
the LED result format on the Main screen.
TestPad mode
If you specify TestPad mode for the LED display, the inside green LEDs illuminate
sequentially as key events occur, such as signal detection, frame synchronization, and
pattern synchronization. The Summary LED illuminates green if all summary results are
OK. If the test stops, the Summary LED is locked until you start or restart the test.
If the module loses any of the LED events, the green Status LED extinguishes, and the
red Alarm LED in the history column illuminates indicating an error condition has
occurred. For example, if the module detected a signal, but then loses it, the green
Signal Present LED extinguishes, and the red LED in the history column illuminates. If
the module then regains a signal, the green Signal Present LED illuminates, and the
red history LED stays illuminated until you clear history results or restart the test.
ANT mode
If you specify ANT mode for the LED display, the LEDs illuminate red when key events
or errors occur. For example, if the module does not detect a signal, the associated LOS
LED illuminates. When the module detects a signal, the LOS LED extinguishes.
Specifying the LED results mode
To specify the LED results mode
1Select Tools > Customize.
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Chapter 3 Getting Started
Setting up the instrument
The Customize User Interface Look and Feel screen appears.
2Set Result/Setup Terminology to TestPad or ANT mode.
3Select Close to store the result mode and return to the Main screen.
The test results mode is specified.
Viewing or installing options
Your instrument may come with software options installed or you may order them later
and install yourself.
To view installed options
•Select Tools > Review/Install Options.
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Setting up the instrument
The Software Options screen appears.
The icon indicates whether the option is enabled.
IconIndicates
Option is enabled.
An expiring option. An “expiring option” is an option that is installed for free
for a trial period. The time left in the trial is indicated to the right. When the
trial period ends, a warning message appears. If you are running a test
when the option expires, you can continue testing, but the expiration warning will reappear every minute until you either enter a permanent option
key or reset the module (changing applications will reset the module).
Option has not been enabled. If you need this option, contact Viavi Customer Care to place an order.
To install software options
•Refer to the Software Option Installation Instruction provided with the option.
Loading upgrades
Software upgrades can be loaded from storage media such as a CD-ROM or a USB
memory key. To obtain the latest software release for your unit, contact your local Viavi
sales office.
Refer to the instructions provided with the software upgrades for details.
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