VeEX UX400 User manual

UX400 10G e-Manual D07-00-058P RevA00
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Table of Contents
1.0 About This User Manual
2.0 Introduction to UX400
3.0 Safety Information
4.0 Platform Overview
4.1 Keypad
4.2 Touch Screen Display
4.3 Battery
4.3.1 Using the Built-in Battery Backup System
4.3.2 Battery Overdraw Protection
4.4 Connectors and Panels
4.4.1 Test Modules
4.4.2 RJ-45 Interface
4.4.3 Bantam Interface
4.4.4 BNC Interface
4.4.5 XFP/SFP Transceiver Interface
4.4.6 SMA Interface
4.4.7 Utility Ports
4.5 LEDs
4.6 Software Upgrade
5.0 Basic Set up and Common Tasks
5.1 Home Screen Tabs
5.2 Common Tasks
5.2.1 Assigning Test Modules
5.3 Platform Settings
5.3.1 Tools
5.3.2 Utilities
5.3.3 Files
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6.0 10G Ethernet Test Application
6.1 Setup
6.1.1 Port Setup
6.1.2 Measurement Setup
6.2 BERT
6.2.1 BERT Setup
6.2.1.1 Header Settings
6.2.1.2 Traffic Settings
6.2.1.3 Error Injection
6.2.1.4 Alarm Injection Settings
6.2.1.5 Starting/Stopping a BERT
6.2.2 BERT Results
6.2.2.1 Summary
6.2.2.2 Signal
6.2.2.2 Errors
6.2.2.3 Alarms
6.2.2.5 Events
6.2.2.6 Traffic
6.2.2.7 Delay
6.2.2.8 Rates
6.2.3 Saving BERT Results
6.3 RFC2544
6.3.1 Setup
6.3.1.1 Header Settings
6.3.1.2 Frames Settings
6.3.1.3 Threshold Settings
6.3.1.4 Throughput, Latency, Frame Loss, and Burst Settings
6.3.1.5 Starting/Stopping a RFC 2544 Measurement
6.3.2 Results
6.3.2.1 Status
6.3.2.2 Summary
6.3.2.3 Signal
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6.3.2.4 Events
6.3.2.5 Throughput
6.3.2.6 Latency and Jitter
6.3.2.7 Frame Loss
6.3.2.8 Burst
6.3.3 Saving RFC2544 Results
6.4 V-SAM
6.4.1 V-SAM Setup
6.4.1.1 Header Settings
6.4.1.2 Service Attributes
6.4.2 Results
6.4.2.1 Configuration Tests
6.4.2.2 Performance Test
6.4.2.3 Signal
6.4.2.4 Event Log
6.5 Throughput
6.5.1 Setup
6.5.1.1 General Throughput Settings
6.5.1.2 Header Settings
6.5.1.3 Traffic Settings
6.5.1.4 Error Injection Settings
6.5.1.5 Alarm Injection Settings
6.5.1.6 Summary
6.5.1.7 Starting/Stopping a Throughput Test
6.5.2 Throughput Results
6.5.2.1 Global Results
6.5.2.2 Per Stream Results
6.5.3 Saving Throughput Results
6.6 Loopback
6.6.1 Setup
6.6.2 Results
6.6.2.1 Summary
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6.6.2.2 Signal
6.6.2.3 Errors
6.6.2.4 Alarms
6.6.2.5 Events
6.6.2.6 Traffic
6.6.2.7 Delay
6.6.2.8 Rates
6.6.2.9 PCS
7.0 OTN/ SDH/ SONET (OTU2/STM-64/OC-192) Test App
7.1 Setup
7.1.1 Signal Overview
7.1.1.1 Heirarchy
7.1.1.2 Interface
7.1.1.3 Structure
7.1.1.4 Payload
7.1.1.5 Pattern
7.1.2 Measurements Setup
7.1.2.1 Timer Setup
7.1.2.2 Performance Analysis
7.1.3 General Setup
7.2 Results
7.2.1 Summary
7.2.2 Errors and Alarms
7.2.3 Event Log
7.2.4 Signal
7.2.5 Histogram
7.2.6 Graph
7.2.7 Performance Analysis
7.2.7.1 Evaluation According to ITU-T G.821
7.2.7.2 Evaluation According to ITU-T G.826
7.2.7.3 Evaluation According to ITU-T G.828
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7.2.7.4 Evaluation According to ITU-T G.829
7.2.7.5 Evaluation According to ITU-T M.2100
7.2.7.6 Evaluation According to ITU-T M.2101
7.2.8 Alarm Error Definitions for SDH, SONET and OTN
7.2.8.1 SDH
7.2.8.2 SONET
7.2.8.3 OTN
7.3 Alarm / Error Injection
7.3.1 Setup Alarm and Error Injection
7.3.2 Alarm Generation
7.3.2.1 SDH Alarms
7.3.2.2 SONET Alarms
7.3.2.3 OTN Alarms
7.3.3 Error Generation
7.3.3.1 SDH Errors
7.3.3.2 SONET Errors
7.3.3.3 OTN Errors
7.3.4 Error Flow
7.3.4 Pattern Error
7.4 SONET Tools
7.4.1 Overhead Analyzer
7.4.1.1 Section Overhead (SOH)
7.4.1.2 Path Overhead Layer (POH)
7.4.1.3 Summary
7.4.2 Overhead Generator
7.4.3 Pointer Tasks
7.4.3.1 Pointer Analysis
7.4.3.2 Pointer Generator
7.4.3.3 Pointer Sequences
7.4.4 Trace Identifier
7.4.4.1 Transmitted Traces (TX)
7.4.4.2 Received Traces (RX)
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7.4.5 Payload Labels
7.4.6 APS Tasks
7.4.7 Tandem Connection Monitoring (TCM)
7.4.8 Tributary Scan
7.4.9 Round Trip Delay
7.4.10 One Way Delay
7.5 SDH Tools
7.5.1 Overhead Analyzer
7.5.1.1 Section Overhead
7.5.1.2 Path Overhead Layer
7.5.1.3 Summary
7.5.2 Overhead Generator
7.5.3 Pointer Tasks
7.5.3.1 Pointer Analysis
7.5.3.2 Pointer Generation
7.5.3.3 Pointer Sequences
7.5.4 Trace Identifier
7.5.4.1 Transmitted Traces (TX)
7.5.4.2 Received Traces (RX)
7.5.5 Payload Labels
7.5.6 APS Tasks
7.5.6.1 APS Timing
7.5.7 Tandem Connection Monitoring (TCM)
7.5.8 Tributary Scan
7.5.9 Round Trip Delay
7.4.10 One Way Delay
7.6 OTN Tools
7.6.1 Overhead Analyzer & Generator
7.6.1.1 OTN Frame Analysis
7.6.1.2 Optical Transport Unit (OTU) Analysis
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7.6.1.3 Optical Data Unit (ODU) Analysis
7.6.1.4 Optical Payload Unit (OPU) Analysi
7.6.2 Payload Label (Payload Structure Identifier)
7.6.3 Trace Identifier (Trail Trace Identifier)
7.6.4 TCM Tasks (Tandem Connection Monitoring)
7.7 PDH Tools
7.7.1 E1 APS Testing
7.7.2 E1 Frame Words
7.7.3 E1 RX Data
7.7.4 DS1 RX Data
7.8 Profiles
8.0 Warranty and Software
9.0 Product Specifications
10.0 Certification and Declarations
11.0 About VeEX
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1.0 About This User Manual
The purpose of this manual is to help users successfully use the features of VePAL UX400 test platform.
This manual is intended for novice, intermediate, and experienced users. It is assumed that users have basic computer
experience and skills, and are familiar with basic telecommunication concepts, terminology, and safety. For more technical
resources, visit VeEX Inc. website at www.veexinc.com.
Every effort was made to ensure that the information contained in this manual is accurate. However, information is subject to
change without notice. We accept no responsibility for any errors or omissions. In case of discrepancy, the web version takes
precedence over any printed literature.
© Copyright 2012 VeEX Inc. All rights reserved. VeEX is a registered trademarks of VeEX Inc and/or its affiliates in the USA and
certain other countries. All trademarks or registered trademarks are the property of their respective companies.
No part of this document may be reproduced or transmitted electronically or otherwise without written permission from VeEX Inc.
This device uses software either developed by VeEX Inc or licensed by VeEX Inc from third parties. The software is confidential
and proprietary of VeEX Inc. The software is protected by copyright and contains trade secrets of VeEX Inc or VeEX's licensors.
The purchaser of this device agrees that it has received a license solely to use the software as embedded in the device, and the
purchaser is prohibited from copying, reverse engineering, decompiling, or disassembling the software.
If any assistance is needed or there are any questions related to the use of this product, call or e-mail our Customer Care
department for customer support. Before contacting our Customer Care department, have the serial number ready. Please refer
to the Basic Operations section of this manual for details on locating the unit serial number.
Customer Care:
Phone: [phone]
E-mail: [email protected]
Website: www.veexinc.com
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2.0 Introduction to UX400
VeEX® UX400 is the industry’s most flexible, compact, and future-proof test solution for OTN, SDH, SONET, PDH, T-Carrier,
Carrier Ethernet, Mobile Backhaul, Core, and Storage Area Networks. VeEX UX400 is the first truly robust portable platform to
offer test capabilities ranging from DS1/E1 to 100GE and beyond, allowing any combination of test modules tailored for each
particular application or set of requirements. Its versatile and flexible hardware and software architecture optimize configurations
to meet users’ specific needs; from transport applications at rates ranging from DS1/E1 to OC-768/ STM-256, OTU3 and OTU4 to
Carrier and Ethernet Transport applications from 10M to 40GE/100GE and beyond.
Its modular architecture allows for up to six independent test modules and up to six concurrent tests or combination of tests. It
also allows simultaneous local and remote users to share the platform and run independent tests, maximizing the use of
resources.
Key Features of UX400:
Industry’s smallest and most powerful 1.5Mbps to 100G test platform
Supports OTU4/OTU3, 40/100GE, 10GE, 1000Base-X, 10/100/1000Base-T, SDH/SONET up to STM-256/OC-768,
and PDH/DSn test interfaces without having to change modules
Large high resolution 10.4” color touch screen VGA monitor port, microphone/headset, built-in speaker
Built-in GPS timing and Atomic (Rubidium) clock
Provide accurate and stable timing reference when an office clock is not available (e.g. Mobile Station)
Verify the accuracy of a received network clock
Intel Atom 1.6GHz Processor
2GB DDR, 8GB SDD (up to 32GB)
High capacity Li-ion battery pack
>1 hour @ 40G, >8 hours @ 1GE
Battery operation at all rates
1000Base-T management port
Dual USB 2.0 ports
WiFi, 3G UMTS modem, Bluetooth, Memory stick
VFL and OPM hardware options
Weighs <15kg fully loaded including battery
Dual ports to monitor network bi-directionally
PDH/DSn/SDH/SONET from E1/T1 to 40G
OTN from OTU1 to OTU4
Ethernet from 10Base-T to 100GE
Generate +/- 150ppm clock offset to stress both Ethernet and SDH networks
Jitter and Wander analysis up to STM-1e rates
SyncE and IEEE 1588v2 support with Wander analysis
Pulse mask analysis on PDH/DSn signals
Multiple remote and local users able to share platform for simultaneous testing
Multiple Test Applications and Users
Independent configuration and operation of modules allows multiple users to share platform
Up to 6 test applications can be configured and operated simultaneously, locally and remotely
SCPI remote control interface via IP connection for multiple user/applications
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3.0 Safety Information
Safety precautions should be observed during all phases of operation of this instrument. The instrument has been designed to
ensure safe operation, however, please observe all safety markings and instructions. Do not operate the instrument in the
presence of flammable gases or fumes or any other combustible environment. VeEX Inc. assumes no liability for the customer's
failure to comply with safety precautions and requirements.
Optical Connectors
The UX400 displays a laser warning icon when the laser source is active to alert the user about a potentially dangerous situation.
It is recommended to:
1. Deactivate the laser before connecting or disconnecting optical cables or patchcords.
2. Never look directly into an optical patchcord or an XFP's or SFP’s connector interface while the laser is enabled. Even
though XFP and SFP optical transceivers are typically fitted with Class 1 lasers, which are considered eye safe, optical
radiation for an extended period can cause irreparable damage to the eyes.
3. Never use a fiber microscope to check the optical connectors when the laser source is active.
ESD: Electrostatic Discharge Sensitive Equipment
Test modules could be affected by electrostatic discharge. To minimize the risk of damage when replacing or handling test
modules, make sure to follow proper ESD procedures and dissipate any electrostatic charge from your body and tools and the
use proper grounding gear.
Perform all work at a workplace that is protected against electrostatic discharging.
Inserting, extracting, or handling test modules.
Never touch any exposed contacts, printed circuit boards or electronic components. - Connecting or disconnecting cables
from modules or platform.
Inserting or removing SFPs, XFPs, or CFPs from the platform.
Always store test modules in ESD protected packaging.
Safe Module Handling
While replacing test modules, all work on the open panel must be performed only by suitably qualified personnel who is familiar
with the dangers both to people and to the instrument itself.
Modules are not hot-swapable. The platform must be turned off and unplugged from VAC mains when removing or
inserting test modules.
For safety and EMC (Electromagnetic Compatibility), empty module slots must be properly covered with blank panel
covers.
Prevent foreign objects from entering the UX400, before, during and after module exchange or re-configuration process.
They could create short circuits or damage internal fans.
Always store test modules by themselves in individual ESD protected packaging (with no loose elements, like screws or
tools).
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Lithium-ion Battery Precautions
Lithium-ion (Li-ion) battery packs are compact and offer high capacity and autonomy, which make them ideal for demanding
applications, like providing long lasting power to portable test equipment. For safety reasons, due to their high energy
concentration, these batteries packs and products containing them must be used, charged, handled, and stored properly,
according to the manufacturer’s recommendations.
Li-ion battery packs contain individual Li-ion cells as well as battery monitoring and protection circuitry, sealed in its plastic
container that shall not be disassembled or serviced.
UX400 battery pack is also fitted with a safety connector to prevent accidental short circuits and reverse polarity.
Always charge the UX400 battery pack inside the UX400 battery bay using the UX400 AC/DC adapter supplied by VeEX.
Do not charge or use the battery pack if any mechanical damage is suspected (shock, impact, puncture, crack, etc).
Do not continue charging the battery if it does not recharge within the expected charging time
Storage: For long term storage, the battery pack should be stored at 20°C/68°F (room temperature), charged to about 30
to 50% of its capacity. Spare battery packs should be charged and used at least once a year to prevent over-discharge
(rotate them regularly).
It is recommended to charge and use battery packs at least every three months. Battery packs shall not go without
recharging (reconditioning) for more than six months.
After extended storage, battery packs may reach a deep discharge state or enter into sleep mode. For safety reasons, Li-
ion batteries in deep discharge state may limit the initial charging current (pre-recharge) before starting their regular fast
charging cycle. The pre-charging state may take several hours.
Air transportation of Li-ion batteries is regulated by United Nations' International Air Transportation Association (IATA)
Dangerous Goods Regulations and by country-specific regulations. Please check local regulations and with common
carriers before shipping Li-ion battery packs or products containing relatively large Li-ion battery packs.
Electrical Connectors
Telephone lines may carry dangerous voltages. Always connect the electrical test ports to known test interfaces which carry low
level signals.
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4.0 Platform Overview
The unit is powered on and off from the red key on the keypad area. To power on the unit, hold the Power key down until a beep
is heard. In order to turn off the unit, press the Power key for at least 2 seconds. If the unit is not responding, holding the Power
key down for more than 10 seconds will force the unit to power down.
Note: No results or configurations are saved during the emergency shut down.
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4.1 Keypad
The keypad comprises the following keys:
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Power key: The unit is powered on and off from the red key on the keypad. The button is recessed to prevent accidental
power on. Press the key for 3-5 seconds to turn the unit on. To turn off the unit, press the Power key for at least 2
seconds. If the unit does not respond, holding the Power key down for more than 10 seconds will force the unit to switch
off.
Backlight key: Press the key to turn the backlight off and on. If the backlight is on a timer, the backlight will restart the
timer.
Summary key: Brings on a screen showing a summary of all interfaces/tests. When pressed a second time, it closes the
summary screen and returns to previous screen. This key does not interrupt operations or tests in progress.
Help key: Brings the user to online help, regardless of the current user interface location of the unit. When pressed a
second time, it closes the help screen. This key does not interrupt operations or tests in the progress.
File key: Saves test results in the unit's memory. If the measurement is still running, it will provide a snapshot the moment
the key is pressed. The Save function provides automatic storage with automatic naming and time stamping function. To
process a stored file, please go to 7.0 Files in the V300 Common Functions manual. Press the key again to cancel the
save operation.
Lock key: Can be configured to lock the keypad or capture the current screenshot.
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4.2 Touch Screen Display
The LCD supports touch screen operation. To operate the touch screen to navigate the menus and tabs, use the stylus located
on the right side of the unit. Please observe the following precautions:
Never use excessive pressure on the touch screen as this may damage its functionality.
Never use sharp objects such as a pen, screwdriver, etc., as this may damage the surface.
Clean the surface of the touch screen using a soft cloth and mild detergent only. Do not use alcohol.
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4.3 Battery
The UX400 chassis is equipped with an intelligent Li-ion rechargeable battery pack, which is located in the rear of the unit. The
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battery will be partially charged upon delivery, so it is recommended to fully charge the battery before use. Please charge the
battery at room temperature to preserve its life and to obtain maximum charge. The battery is charged during operation, provided
the unit is connected to the AC Mains using the supplied AC adaptor. Removing the battery while the unit is powered on is not
recommended - this may result in damage. Remove the rubber cover on the right side to connect the AC Main adaptor to the
unit.
Note: Make sure that the key is aligned while plugging in the AC adaptor to the unit. If it is not aligned, the plug will not connect
to the unit and using force will damage the connector.
Battery Charging time
The total charging time depends on the remaining battery capacity percentage and the actual current load in the UX400. An idle
UX400 (no test modules selected or tests running) would recharge faster than an active one.
Attention! For safety reasons, the battery charging time is always limited to a maximum of three hours.
- If the UX400 is being used while charging and a full charge (100% capacity) can not be achieved within three hours, the
charging will automatically stop.
- To resume charging, unplug the AC/DC adapter and let the UX400 work on battery power for a minute or two and plug the
AC/DC back in. This would reset the charging circuity.
Warning! DO NOT disconnect the AC/DC power supply when the UX400 is running under heavy load conditions (greater than
the battery's current ratings), such us certain multi-module multi-test applications.
- If the current required is too high, but still within the battery's limits, a warning message would be displayed, when the AC/DC
adapter is unplugged, while all the tests are properly closed and the UX400 shuts down.
- Under overload conditions, the battery may not be able to supply enough current to keep such test scenario running and its
safety mechanisms may shut the battery down without warning and test results may be lost.
Battery Safety precautions
Refer to section 3.0 Safety Information.
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4.3.1 Using the Built-in Battery Backup System
An internal battery pack option is available for the UX400 system to provide uninterrupted operation during short power outages
or as a time-saving convenience when moving the test set from one point to another, without having to cycle power. Under
certain conditions it can also provide hours of untethered testing autonomy (extended battery operation).
êUse caution when planning to rely on battery operation or backup power availability. Due to its flexibility and scalability, the
capacity of the UX400 system may exceed its battery rating. Independent of how many modules or module combinations are
loaded in the UX400, if the total power required by the active test modules exceeds 95W, the battery operation would be
disabled for safety reasons and to protect the battery pack. Use the tables below to calculate the maximum power consumption
for any desired test scenario.
Release any unused test modules before entering extended battery operation to assure that total power consumption is less than
95W. Use the power gauge information (battery icon) to get an estimate on the autonomy time, which based on the actual power
consumption. Make sure battery is fully charged.
If moving the UX400 from one place to another (e.g. between workstations, benches, racks or equipment rooms) release test
modules as their test cables are disconnected, to reduce the power consumption below 95W and assure a hitless transition.
Modules can then be quickly reactivated by assigning them to a test application and recalling its previous configuration (profile) as
test cables are reconnected. Time is saved by not having to reboot the test system.
Battery Power Capacity
Total Battery Power: 115 Watts
UX400 Platform: 20 Watts
Up to 95 Watts are available to any combination of active test modules (below).
Note: The sum of active test modules cannot exceed the 95W power budget available.
Test Modules’ maximum power requirements (active modules only)
UX400-100GE module: 58 Watts
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UX400-40G module: 32 Watts
UX400-10G module: 29 Watts
UX400-2.5G module: 20 Watts
UX400-1GE module: 15 Watts
Note: Test Modules become active when one of its test ports is assigned to a Test Application; otherwise they remain inactive
with little or no power consumption.
Total AC/DC Power: 250 Watts
220 Watts available to support any combination of active test modules
Actual power consumption (per module) may vary depending on configuration/settings and optic modules being used. Values
listed are maximum estimated ratings for the most demanding conditions.
Inactive modules (not assigned to a test application) do not consume power.
When working on battery-only mode, the UX400 notifies users when the maximum battery capacity has been reached or it is not
enough to support the new module user is trying to activate.
4.3.2 Battery Overdraw Protection
On battery power, when the capacity reaches 10%, the UX400 notifies users with a pop-up warning message and an
intermittent audible alarm.
If the previous message is ignored and the total capacity falls under 5% the UX400 immediately initiates the emergency
shutdown procedure for safety and to protect its battery from damage. Once in this mode all power to modules is
immediately cut and test files are not saved.
In the event that the load exceeds the 95W battery limit when the AC power is interrupted or AC/DC adapter is
unplugged, the UX400 would immediately initiate the emergency shutdown procedure to protect its battery from damage or
any other safety issues. Once in this mode all power to modules is immediately cut and test files are not saved.
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4.4 Connectors and Panels
4.4.1 Test Modules
1G Test Module:
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Single slot (up to 6 modules per UX400 > 12 ports)
Test Interfaces/Applications
10/100/1000Base-T
100Base-FX/1000Base-X
1/2/4G Fiber Channel
Test modes
Single and Dual Port
Bi-directional Passthrough monitoring
RFC2544, V-SAM per ITU-T Y.1564
Throughput with multiple streams, MPLS, VLAN tags
Loopback
External clock interface (input and output)
Audio headset for VoIP application
2.5G Test Module:
Dual 2.5 G ports
Single BERT, Dual BERT, Bi-directional line/payload through & monitor
Test rates supported
STM-0e/STM-0/STM-1/STM-1e/STM-4/STM-16:
VC-11,VC12,VC-3, VC-4, VC-4-4c,VC-4-16c
STS-1/OC-1/OC-3/OC-12/OC-48:
VT-1.5, VT-2, STS-1 SPE,STS-3c SPE, STS-12c SPE,STS-48c SPE
PDH/DSn:E1, E2, E3. DS1, DS3, E4
Audio headset for ISDN PRI and VF applications
Jitter wander to STM-1 rate
10G Test Module:
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Single Slot (Up to 6 x 10G modules per UX400 i.e. 12 test ports)
Dual 10G ports
Dual Port, Single Port, Bi-directional line/payload through & monitor
Applications (same as TX300e)
STM-64: VC-4-64c down to VC12
OC-192: STS-192c SPE
10GE (LAN/WAN)
OTN: OTU2, OTU1e, OTU2e
8GFC, 10GFC
External clock RX and TX
Audio headset (VF)
40G Test Module:
SDH/SONET testing
Generation/evaluation of STM-256 signal according to ITU-T G.707
Generation/evaluation of OC-768 signal according to ANSI T1.105
SDH Mapping
VC-4-256c, VC-4-64c, VC-4-16c, VC-4-4c, VC-4, to VT1.5/VT2.0
PDH Analysis internal E3/E1 analysis
Full ITU-T performance monitoring, APS testing
Test pattern and Alarm generation, Error Insertion
Overhead display, decode and generation
Trace identifier
Pointer Analysis
Tandem analysis
40/100G Test Module:
CFP Modules & Interfaces
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40GE (40GBase-LR4)
100GE (100GBase-LR4)
External clock input (BNC)
Eye clock output (SMA)
SD card
40GE LR4 CFP Module
2 SMF: 1 fiber in each direction with 4x10G wavelengths
100GE LR4 CFP Module
2 SMF: 1 fiber in each direction with 4x25G wavelengths
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4.4.2 RJ-45 Interface
Balanced, Tx and Rx electrical interfaces for T1 and E1 signals. The port is 120 ohm for E1 signals and 100 ohm for T1 signals.
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4.4.3 Bantam Interface
Balanced, Tx and Rx interfaces for DS1 and E1 signals.
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4.4.4 BNC Interface
Unbalanced, 75 ohm Tx and Rx interfaces for DS3 and E1, E2, E3, E4 and STM-0/STS-1 (51M), STS-3/STM-1E.
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4.4.5 XFP/SFP Transceiver Interface
Optical Transceivers (Tx/Rx) conforming to Multi Source Agreement (MSA) recommendations are supported. Various SFPs are
available for different wavelengths and dynamic range requirements. Check the ordering options for more details. The standard
optical connector type used on SFP transceivers is LC. Please use appropriate low reflectance patchcords (Ultra Physical Contact
[UPC]) and note the damage level associated with each Transceiver. Customers opting to use or provide their own SFPs should
ensure that the transceivers are multi-rate and that digital diagnostics are supported – this enables the optical power and other
measurements when in SDH optical test mode. Furthermore, only SFPs with low jitter and good optical extinction ratio should be
used. To comply with ROHS and other local government requirements, only compliant SFP transceivers should be used.
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4.4.6 SMA Interface
Unbalanced, NRZ electrical clock input
For DS1/T1: 1.544Mbps or 1.544 MHz
For E1: 2.048Mbps or 2.048MHz
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4.4.7 Utility Ports
The Ethernet and USB ports are located on the top of the unit.
RJ45, 10/100/1000Base-T Port
Ethernet applications include:
IP connectivity testing
Net Wiz testing
Transfer measurement results and test profiles between the instrument and a computer using ReVeal UX400 software
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Upload/download configurable tables between the instrument and a computer using ReVeal UX400 software
Upgrade the instrument software using ReVeal UX400 software
Remote control of the instrument using ReVeal UX400 software (optional)
USB Port
The USB port supports:
Memory drives
WiFi adaptor for connectivity and WiFi testing application
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4.5 LEDs
Fixed (Power) LED: A single LED indicates the power state of the unit.
The LED is off when the unit is powered off
The LED is green when the unit is powered on
The LED is orange when the unit is connected to the AC Mains and powered off
Soft LEDs: Each tests module offers detailed soft LEDs and indicators in its test application. Refer to individual modules manuals
for details.
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4.6 Software Upgrade
There are two methods of updating the test set software: via USB port or ReVeal UX400 software.
Downloading UX400 Software from the VeEX website
Enter Username and Password under Customers Login.
Click on the Customers tab at the top of the screen after successfully logging in.
Click on Software, located in the Functions toolbar on the left side of the screen.
Search for and download the latest UX400 software onto the PC.
Installing New UX400 Software via USB
Unzip the original/downloaded upgrade package file.
Search for a compressed file with the phrase veex-arm.tar.gz, (e.g., "UX400-veex-arm.tar.gz") and copy it onto a USB
stick formatted in the FAT32 file format.
Note: Make sure the new software image is the only file on the USB stick.
Verify that the UX400 unit is powered off and that the DC adaptor connected to the unit is charging the battery. Insert the
USB stick on the top left side of the unit.
Press and hold the Power and the Backlight keys simultaneously.
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