Conference Papers

“Ethernet via Bidirectional Packet Based Telemetry – Frequency Division Duplex (FDD) vs. Time Division Duplex (TDD)” by Sean Wilson and Ray O’Connell, presented at ITC 2023

approach
Bidirectional
downlink
FDD
Frequency
latency
link
Packet
receive
receiver
single
slot
switching
system
systems
TDD
test
Time
transmit
transmitter

“Data Quality Metric (DQM) – How Accurate Does it Need to Be?” by Mark Geoghegan, presented at ITC 2023

accuracy
channel
degradation
DQM
Error
estimation
ideal
imax
imin
log
METRIC
Metrics
MLBD
p1
Pe
performance
pN
probabilities
Probability
QUALITY
system
test
transition

“Advances In Packet Based Bi-Directional Telemetry Solutions”, by Ray O’Connell, presented at ITC 2022

access
BI-DIRECTIONAL
channel
frequency
interface
IP
link
NETWORK
node
PACKET
packets
receiver
simplex
system
systems
TDD
test
Time
TmNS
transmit
transmitter

“Switched Telemetry System (SwTS) Standard for Bidirectional Telemetry Interoperability” by Ray O’Connell, Sean Wilson, and Michael Rauf, presented at ITC 2023

bi-directional
BIDIRECTIONAL
burst
control
controller
existing
packet
packets
receiver
STANDARD
streaming
switch
SWITCHED
SYSTEM
time
TmNS
transmit
transmitter
transmitters
waveform

“Meaningful G/T Measurements – Made at Night” by Terry Hill and Jim McCurdy, presented at ITC 2023.

antenna
BER
calibrated
cold sky
dB
factor
G/T
ground
link budget
polarization
receiver
results
signal
sky
SOLAR
solar flux
source
station
sun
temperature

“Meaningful G/T Measurements – Made at Night” presented by Terry Hill at ITC 2023.

accurate
antenna
antennas
BER
calibrated
cold sky
dB
dBm
Eb/N0
EIRP
factor
flux
link budget
log
Polarization
sky
solar
solar flux
source
sun
temperature

Features and specifications for the Quasonix Maximum Likelihood Stream Combiner™, a better “Best Channel Selector” that leverages Data Quality Encapsulation (DQE), Maximum Likelihood Bit Detection (MLBD), and proprietary Quasonix algorithms.

Best
Bit
Channel
channels
DQE
DQM
groups
interface
MLSC
Quality
status
Stream
time
TMoIP

Features and specifications for Quasonix’s ADAPT™ (Auto Deployable Antenna Positioning Technology) PD750 HyperTrack™ antenna. This 12-foot (3.7-meter) system has a compact, portable stored configuration and simple, automated deployment, for the ultimate in mission readiness anywhere in the world.

ADAPT
Antenna
Auto-Deployable
bands
control
dB
Frequency
HyperTrack
Hz
MHz
MPH
PD750
reflector
System
tracking

Quasonix, Inc. terms and conditions of sale of goods.

Buyer
Buyer’s
CONDITIONS
contract
costs
delivery
EXPORT
GOODS
herein
hereunder
information
INFRINGEMENT
liability
notice
order
part
party
provided
Seller
Seller’s
shipment
SOFTWARE
specifications
subject
technology
TERMS
time
warranty

Installation and operation of Quasonix’s QSight™ boresight system, including hardware assembly and browser interface instructions.

antenna
antenna control unit
Assembly
Boresight
browser
Camera
circular
Configuration
Interface
IP address
linear
Mode
Polarization
Positioner
QSight
RF test source
Settings
System
transmit assembly
Warranty

This document describes the memory and media present in Quasonix Transmitters.

BBRAM
configuration
disk
DRAM
EEPROM
ethernet
Flash
FPGA
media
memory
payload data
process to sanitize
SD card
SRAM
storage
tape
volatile
volatility

Instructions for operating the 1U QSX-TMOIP-12CH, the RDMS IP2 option, and the Quasonix TMoIP Processor (QTP).

Address
BERT
Browser
Channel
Configuration
Configure
Clock
Control
DNS
Frame
Interface
IP
Network
Panel
PCM
Processor
QTP
Settings
Status
TMoIP

Technical guide for understanding, creating, and editing scripts for Quasonix RDMS™ receivers.

boot
command
execute
modes
operation
recording
script
scripting

Instructions for safely operating the Quasonix HyperTrack™ precision PD Series positioner, focusing on the local and browser-based user interfaces.

Azimuth
Bar
Calibration
Client
Control
Display
Elevation
GUI
Hardware
HTAC
HyperTrack
Icon
Interface
Mission
Mode
RSSI
Screen
Settings
Status
Tools
Tracking
True North
User
Window
Wizard

Draft user manual: Installation, operation, and maintenance of the QTrack™ antenna system.

2U
ACU
Antenna
Axis
Azimuth
Bar
Control
Elevation
Hand
Icon
Logging
Menu
Operation
QTrack
select
Set
Settings
System
Tracking
Transmitter
Window

Features of the Quasonix Network Assistant, a browser-accessible server that identifies all Quasonix network addressable equipment and provides easy access to units for monitoring and maintenance, without requiring a list of IP addresses.

1U
access
addressable
Assistant
browser
GPS
IRIG-B
links
log
Manage
network
Network Addressable
NTP
programming pages
rack-mount
rackmount
server
updates
user manuals

Features and specifications for the QSight™ boresight – a complete and simple solution including an L/S/C band dual-output Transmit Assembly (TA) and 2U rackmount Controller Assembly (CA).

2U
antenna
Assembly
browser
cable
calibrated
control
Controller
dual-output
Ethernet
interface
linear
phase
polarization
Power
TA
Transmit
transmitter
user
waveforms

Features and specifications for the TMoIP Processor, which provides IRIG 218-20 compliant telemetry transport in both a 12-channel 1U form factor and a 3-channel integrated solution embedded in a 1U or 3U RDMS™ receiver.

1U
218-20
3-channel
automatically
bit
Channel
channels
Clock
Configurable
configuration
data
data streams
DQE
Edge
field
flexibility
form
Frame
full
Health
integrated
Interface
IRIG
IRIG 218-20
maximum
network
Packet
Panel
PCM
Ports
Processor
RDMS
reliable
remote
RS-422
solution
Status
supports
TMoIP
TMOIP-12
transport
TTL
Updates

Features and specifications for the third-generation Quasonix Receiver Analyzer and its accompanying software user interface.

1U
acquisition
analyzer
Automated
BEP
Bit
configurable
count
DQM
dynamic
Error
files
Interface
measurement
Multipath
performance
provides
receiver
Results
saved
Signal
status
test
testing
Tests
time
User

Features, options, available configurations, and specifications for Quasonix’s 2U rackmount transmitter platform, the easy way to control and cool up to four transmitters (sold separately).

2U
API
BNC
Browser-Based
chassis
client
Connectors
control
cooling
GUI
interface
Outputs
Platform
power
Rackmount
Software
status
Temperature
transmitters

Description of how QBeam™ beamforming works, features of the Digital Signal Processor (DSP), typical system setup, and advanced capabilities.

Antenna
Antennas
array
arrival
beamformed
boresight
direction
DSP
electronically
Elements
filtering
interference
interferers
patches
phase
physical
received
Signal
signals
Stationary
steered
steering

Features of the HyperTrack™ line of telemetry antennas and the accompanying HyperTrack™ Antenna Control Unit (HTAC), plus available feeds and specifications.

AGC
AM
antenna
control
design
environmental
Ethernet
feed
feeds
Gearboxes
HTAC
HyperTrack
interface
moisture
motors
pedestal
pedestals
performance
Plano-Centric
sealed
signal
status
system
systems
Tracking
User
Years

Instructions for accessing and using Quasonix RDMS™ receivers’ serial control interface, including commands and syntax, for debugging purposes. The Telnet interface should only be accessed by advanced users. Contact Quasonix customer support before using these options.

AGC
channel
command
commands
configuration
enable
menu
mode
modulation
parameters
protocol
receiver
serial control interface
set
Telnet
terminal

Installation and operation of the Quasonix 3rd Generation Compact RDMS™ Telemetry Receiver-Combiner, updated to match RDMS™ System Version 19.3.

Advanced
AGC
AM
Antenna
Bit
Channel
Combiner
Compact
Dual
Error
Frequency
Generation
Menu
MHz
Mode
Modulation
Monitor
Option
Pattern
RDMS
receiver
Receiver-Combiner
Scaling
Screen
Set
Settings
Signal

Instructions necessary for monthly inspection, preventive and corrective maintenance, and alignment of the antenna system in accordance with warranty requirements. This form/log is to be executed monthly and sent to Quasonix to maintain the warranty agreement.

Annually
antenna
Assembly
Azimuth
corrosion
damage
Dehydrator
equipment
free
hardware
HTAC
inspect
monthly
paint
positioner
Quarterly
screen
Structure
Sun
system
torqued

Instructions and commands for bit error rate testing on Quasonix RDMS™ receivers, plus guidance on using test noise (AWGN) commands.

AWGN
BER
BERT
Bit
Commands
Error
limit
Measurement
Noise
Test

Simple instructions for the field replacement of an SMA (F) connector in a Quasonix TIMTER™ or Dual TIMTER™ telemetry transmitter.

damaged
field replaceable
replacement
SMA female connector
screwdriver
TIMTER
Transmitter

This document describes the memory and media present in Quasonix Receiver Analyzers.

BBRAM
configuration
disk
DRAM
EEPROM
ethernet
Flash
FPGA
media
memory
payload data
process to sanitize
SD card
SRAM
storage
tape
volatile
volatility

Installation and operation of the Quasonix 3rd Generation Rackmount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 19.3.

1U
3U
Advanced
AFC
AGC
AM
Antenna
API
Automatic
BERT
Best
Best-Channel
Best-Source
Bit
Browser
Certificate
Channel
Clock
Combiner
Control
Controls
CS1
Cyber-Security
Data
Display
Down
Drop
Entry
Factory
FM
Frequency
Front
Generator
Interface
HyperTrack
IP
Main
Menu
Mode
Modulation
Monitor
Noise
Only
Output
Panel
Pattern
PCM
Phase Noise
Polarity
Presets
Rate
RDMS
Scale
Scaling
Screen
Selection
Selector
Setting
Settings
Signal
Source
System
Test
TMoIP
Update
Video
Window
Zero

Installation, operation, and troubleshooting of the HyperTrack™ Local Control Pendant, used to manually control motion of the azimuth and elevation axes of the HyperTrack™ Antenna System Pedestal.

Analog
Antenna
Axis
Control
Controller
Hand-held
HTAC
HyperTrack™
Local
pedestal
Pendant
position
Potentiometer
PUR cable
Pushbutton
Ready
Reset
Run
Selected
Servo Box
Status
Switch
System
Velocity

Introduction to the Data Quality Metric and its role in troubleshooting, and an essential troubleshooting flowchart for Gen 3 RDMS™.

accurate
BEP
BER
best-channel selection
best-source selection
bits
calibrated
Data Quality Encapsulation
Data Quality Metric
diagnostic
DQE
DQM
encrypted
flowchart
information
RDMS
received
receiver
set
signal
Troubleshooting

Installation and operation of Quasonix’s TIMTER™ Multi-Mode Dual Telemetry Transmitters, firmware version 2.xxx (required for transmitters with the -D2 option). Find firmware version with VE command or in startup banner.

ARTM
Bench
Bit
Cable
Clock
Codes
Command
Commands
Configuration
Control
D2 option
Density
Dual
Error
Frequency
Harness
Heat
Input
Interface
LDPC
Low
Male
MDM-15
Mount
Mounted
Multi-mode
Option
Output
Package
Power
Pre-wired
Pulse
Quasonix
Rack
Rate
Receiver
RF
RS-422
Serial
Shock
Sink
Specifications
Spectrum
Standard
STC
Telemetry
Testing
Tier
TIMTER
Transmitter
Transmitter-powered
TTL
Units
Vibration
X-axis
Y-axis
Z-axis

Installation and operation of the Quasonix 3rd Generation Rackmount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 18.

1U
3U
Advanced
AFC
AGC
AM
Antenna
API
Automatic
BERT
Best
Best-Channel
Best-Source
Bit
Browser
Certificate
Channel
Clock
Combiner
Control
Controls
CS1
Cyber-Security
Data
Display
Down
Drop
Entry
Factory
FM
Frequency
Front
Generator
Interface
HyperTrack
IP
Main
Menu
Mode
Modulation
Monitor
Noise
Only
Output
Panel
Pattern
PCM
Phase Noise
Polarity
Presets
Rate
RDMS
Scale
Scaling
Screen
Selection
Selector
Setting
Settings
Signal
Source
System
Test
TMoIP
Update
Video
Window
Zero

This document describes the memory and media present in Quasonix EVTM products.

BBRAM
configuration
disk
DRAM
EEPROM
ethernet
Flash
FPGA
media
memory
payload data
process to sanitize
SD card
SRAM
storage
tape
volatile
volatility

These files address the applicability of the US Government’s J/F 12 and DD Form 1494 classification documents to Quasonix’s TIMTER™ transmitter product line.

applicability
Application
classification
DD FORM 1494
EMISSION
Equipment
Frequency
HANDLING
J/F 12/09140
JF 12
JF12
model
STAGE
SYSTEM
transmitter
UNCLASSIFIED

Features, block diagram, overview of the remote client user interface, specifications, and possible band configurations for Quasonix’s third-generation compact (airborne) RDMS™ telemetry receiver-combiner.

ARTM
BCS
best
channel
Combiner
COMPACT
dB
dBm
demodulator
Diversity
DQM
Eb
frequency
kHz
LR
Mbps
MHz
N0
Noise
Performance
QPSK
Quality
range
RDMS
Receiver
Section
Source
sources
time

Overview of our quality policy and the systems, processes, and management that support it.

Action
Audit
Control
Corrective
Design
Document
Identification
Inspection
Management
Processes
Product
Quality
Statement
System
Verification

“An Enhanced, Constant Envelope, Interoperable Shaped Offset QPSK (SOQPSK) Waveform for Improved Spectral Efficiency,” by Terry Hill; presented at ITC 2000.

Bandwidth Efficiency
BPSK
Constant Envelope
FQPSK
SATCOM
SBPSK
Shaped Offset QPSK (SOQPSK)
signal
Spectral Occupancy

“Improving the Detection Efficiency of Conventional PCM/FM Telemetry by Using a Multi-Symbol Demodulator,” by Mark Geoghegan; presented at ITC 2000.

Binary PCM/FM
DEMODULATOR
detector
EFFICIENCY
FM
interval
Multiple Symbol Demodulation
Noncoherent Detection
phase
symbol
TELEMETRY
transmitter
waveform

“Description and Performance Results for the Advanced Range Telemetry (ARTM) Tier II Waveform,” by Mark Geoghegan; presented at ITC 2000.

ARTM
Continuous Phase Modulation (CPM)
Multi-h
Phase
Spectral Efficiency
TELEMETRY
Tier II
Trellis Demodulator
WAVEFORM

“Implementation and Performance Results for Trellis Detection of SOQPSK,” by Mark Geoghegan; presented at ITC 2001.

detector
Power Efficiency
SOQPSK
Spectral Efficiency
Trellis Detection
waveforms

“The Flexible Interoperable Transceiver Data Link Standard – A Solution for Interoperability and Spectral Efficiency for the T&E and Training Ranges,” by Eddie Meadows & Terry Hill; presented at ITC 2001.

Data Link
DOD
FIT
Instrumentation
Interoperbility
Protocols
RANGES
RF
Spectral and Bandwidth Efficiency

“Analytical and Experimental Characterization of SOQPSK and Multi-h CPM in the Presence of Adjacent-Channel Interference,” by Terry Hill; presented at ITC 2001.

Adjacent-Channel Interference
Advanced Range Telemetry (ARTM) Program
FQPSK
Multi-h CPM
Shaped Offset QPSK (SOQPSK)
Tier I
Tier II
waveform

“Analytical and Experimental Characterization of SOQPSK and Multi-h CPM in the Presence of Adjacent-Channel Interference,” by Terry Hill; presented at ITC 2001.

Adjacent-Channel Interference
Advanced Range Telemetry (ARTM) Program
FQPSK
Multi-h CPM
Shaped Offset QPSK (SOQPSK)
Tier I
Tier II
waveform

“Analytical and Experimental Characterization of SOQPSK and Multi-h CPM in a Multipath Channel,” by Terry Hill; presented at ITC 2001.

Advanced Range Telemetry (ARTM) Program
FQPSK
Multi-h CPM
Multipath
Shaped Offset QPSK (SOQPSK)
Tier I
Tier II
waveform

“Experimental Results for Multi-Symbol Detection of PCM/FM,” by Mark Geoghegan; presented at ITC 2001.

Advanced Range Telemetry (ARTM) Project
Binary PCM/FM
Multiple Symbol Demodulation
Noncoherent Detection

“Implementation and Performance of a High-Speed, VHDL-Based, Multi-Mode ARTM Demodulator,” by Terry Hill, Mark Geoghegan, & Kevin Hutzel; presented at ITC 2002.

Advanced Range Telemetry (ARTM)DEMODULATOR
FPGA
FQPSK
modulation
multi-h CPM
PCM/FM
Reconfigurable Hardware
Software Defined Radio
SOQPSK
spectrum
Tier I
Tier II
VHDL
waveforms

“Optimal Linear Detection Of SOQPSK,” by Mark Geoghegan; presented at ITC 2002.

Detection Efficiency
family
filter
Linear Receiver
SOQPSK
waveforms

“Extending the Range Of PCM/FM Using A Multi-Symbol Detector And Turbo Coding,” by Mark Geoghegan; presented at ITC 2002.

detection
DETECTOR
efficiency
Forward Error Correction (FEC)
PCM/FM
Range Extension
Turbo Coding

“Bandwidth And Power Efficiency Trade-Offs of SOQPSK,” by Mark Geoghegan; presented at ITC 2002.

Bandwidth/Efficiency Plane
detection
Power Efficiency
SOQPSK
Spectral Efficiency
waveforms

“Experimental Results for PCM/FM, Tier 1 SOQPSK, And Tier II Multi-h CPM with Turbo Product Codes,” by Mark Geoghegan; presented at ITC 2003.

Forward Error Correction (FEC)
Multi-h CPM
PCM/FM
SOQPSK
Tier 1
Tier II
Turbo Coding

“Experimental Results for PCM/FM, Tier 1 SOQPSK, And Tier II Multi-h CPM with CMA Equalization,” by Mark Geoghegan; presented at ITC 2003.

Adaptive Equalization
CMA
Multi-h CPM
PCM/FM
SOQPSK
Tier 1
Tier II

“SOQPSK with LDPC: Spending Bandwidth to Buy Link Margin,” by Terry Hill & Jim Uetrecht; presented at ITC 2013.

ARTM Tier I
Forward Error Correction
LDPC
Shaped Offset QPSK (SOQPSK)

“Space-Time Coding Solution to the Two-Antenna Interference Problem,” by Mark Geoghegan & Louis Boucher; presented at ITC 2014.

Aeronautical Flight Testing
signals
SOQPSK
Space-Time Coding (STC)
transmit
Two-Antenna Problem

“Metrics and Test Procedures for Data Quality Estimation in the Aeronautical Telemetry Channel,” by Terry Hill; presented at ITC 2015.

Aeronautical Telemetry
Best Source Selection (BSS) Algorithms
Data Quality Encapsulation (DQE) Packet Structure
Data Quality Metric (DQM)
Maximum Likelihood Data Combining
Calibration

“Performance Results Using Data Quality Encapsulation (DQE) And Best Source Selection (BSS) In Aeronautical Telemetry Environments,” by Mark Geoghegan & Robert Schumacher; presented at ITC 2017.

Aeronautical Flight Testing
Best Source Selection (BSS)
Data Quality Encapsulation (DQE)
Data Quality Metric (DQM)

“Obtaining Superior Performance From Dual-Channel Receivers Using Best-Channel Selection,” by Jim Uetrecht; presented at ITC 2018.

Aeronautical Flight Testing
Best-Channel Selector (BCS)
Best-Source Selector (BSS)
Data Quality Encapsulation (DQE)
Data Quality Metric (DQM)
diversity
Pre-Detection Maximal-Ratio Combiner (Pre-D MRC)

“Test Methods and Results for Adaptive Equalizers,” by Terry Hill; presented at ITC 2019.

Adaptive Equalizer
aeronautical telemetry
Multipath distortion
propagation
standardized tests
test methodology

“Effect of Rotating Propellers on Telemetry Signals,” by Mark Geoghegan & Marwan Nusair; presented at ITC 2019.

Aeronautical Flight Testing
aircraft
antenna
Data Quality Metric (DQM)
electromagnetic
Propeller
RF Channel
simulation
TELEMETRY
transmit

“Dual-Channel Receiver Performance Using Best-Channel Selection: Field Test Results,” by Jim Uetrecht; presented at ITC 2019.

Aeronautical Mobile Telemetry (AMT)
BER
Best-Channel Selector (BCS)
Best-Source Selector (BSS)
Combiner
Data Quality Encapsulation (DQE)
Data Quality Metric (DQM)
Link
Pre-Detection Maximal-Ratio Combiner (Pre-D MRC)

“An All-Digital Antenna Control Protocol,” by Jim Uetrecht; presented at ITC 2019.

Amplitude Modulation (AM)
analog
Antenna Control Unit (ACU)
Antenna Tracking
Automatic Gain Control (AGC)
Digital Antenna Control Protocol (DACP)

“Mitigation of Antenna Polarization Transformations Caused by Airframe Reflections,” by Mark Geoghegan & Marwan Nusair; presented at ITC 2019.

aeronautical flight testing
aircraft
antennas
best channel selector (BCS)
circularly
combiner
data quality metric (DQM)
dB
linearly
loss
performance
POLARIZATION
polarized
received
signals
transmit

“EVTM (Ethernet-Via-Telemetry): Get Ethernet Packetized Data Directly From Your Test Article,” by Matt Schultz; presented at ITC 2015.

buffer
buffering
burst
data
Ethernet packetized data
Ethernet Via Telemetry
evaluation
flight
generation
hardware
IP
link
Mbps
NASA AFRC
operation
packet
protocol
rates
receive
system
test article
theory

“EVTM (Ethernet-Via-Telemetry): Get Ethernet Packetized Data Directly From Your Test Article,” by Matt Schultz; presented at ITC 2015.

airborne
client
data
Ethernet Via Telemetry
EVTM
frame
ground
laptop
link
loss
Mbps
Packet
power
rate
RF
serial
system
test article
transfer
wireless Ethernet

“A Comparison of Adaptively Equalized PCM/FM, SOQPSK, And Multi-h CPM in a Multipath Channel,” by Terry Hill & Mark Geoghegan; presented at ITC 2002.

adaptive
airborne
channels
continuous
equalization
modulation
MULTIPATH
PCM
phase
SOQPSK
telemetry

This document describes the memory and media present in Quasonix RDMS™ second-generation receivers.

BBRAM
configuration
disk
DRAM
EEPROM
ethernet
Flash
FPGA
media
memory
payload data
process to sanitize
SD card
SRAM
storage
tape
volatile
volatility

This document describes the memory and media present in Quasonix RDMS™ third-generation receivers and notes that payload data cannot be stored in the RDMS™ itself, nor can it be routed to other devices on its Ethernet network.

BBRAM
configuration
disk
DRAM
EEPROM
ethernet
Flash
FPGA
media
memory
payload data
process to sanitize
SD card
SRAM
storage
tape
volatile
volatility

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 17.

1U
3U
Advanced
AFC
AGC
AM
Antenna
API
Automatic
BERT
Best
Best-Channel
Best-Source
Bit
Browser
Certificate
Channel
Clock
Combiner
Control
Controls
CS1
Cyber-Security
Data
Display
Down
Drop
Entry
Factory
FM
Frequency
Front
Generator
Interface
HyperTrack
IP
Main
Menu
Mode
Modulation
Monitor
Noise
Only
Output
Panel
Pattern
PCM
Phase Noise
Polarity
Presets
Rate
RDMS
Scale
Scaling
Screen
Selection
Selector
Setting
Settings
Signal
Source
System
Test
TMoIP
Update
Video
Window
Zero

Gives an overview of Quasonix’s Beamforming Antenna Kit, which allows automatic beamformed steering to maximize gain of a stationary antenna array.

align
alignment
Angle
antenna
Antennas
Arrangement
array
automatically
Beamformed
BEAMFORMING
beamsteering
boresight
dB
Elements
Expandable
Fixed
Gain
incoming
KIT
maximize
mechanical
Mount
patch
Patches
phase
RDMS
receivers
signal
signal strength
signals
Simple
SPECIFICATIONS
Stationary
steered
Steering
target
tracking

This technical guide introduces Low-Density Parity Check (LDPC) encoding, its uses and benefits, the Quasonix products it is available for, and considerations for optimal set-up and use.

Advanced
Analyzer
ARTM
Availability
Bandwidth
Bench
Channel
Check
Command
Commands
Compact
Configuration
Controls
Density
Dual
LDPC
List
Menu
Mode
Modulator
Mount
Parity
Quasonix
Rack
Receiver
Receivers
RF
Screen
Single
SOQPSK
STC
Tier
Transmitter
User

Certificate showing assessment of the Quasonix Moorpark facility’s Quality Management System by Eagle Registrations, Inc. and conformation to the ISO 9001:2015 standard.

Certificate No. 5960 (Recertified September 28, 2023)
October 21, 2023 through October 20, 2026
Certificate of Registration
This is to certify that the Quality Management System of
Quasonix
353 Science Drive, Moorpark, California 93021 USA
Has been assessed by EAGLE Registrations Inc. and
conforms to the following standard:
ISO 9001:2015
Scope of Registration
Designs and Manufacture Radio Telemetry Products for the Commercial
and Government Sectors

This Limited Warranty applies to all hardware and software products and internal components of such products (the “Products”) sold by Quasonix, or its representatives, authorized resellers, or country distributors.

authorized
conditions
customer
defective
facility
forth
herein
limited
loss
materials
parts
period
products
repair
replacement
software
sold
terms
time
warranties
warranty

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Versions 9 and 10.

1U
3U
Advanced
AFC
AGC
AM
Bit
Browser
Channel
Combiner
Control
Data
Display
Entry
Factory
FM
Frequency
Front
Generation
Main
Menu
Mode
Modulation
Output
Panel
PCM
Polarity
Presets
Quasonix
Rack-Mount
Rate
RDMS
Scale
Scaling
Screen
Selection
Setting
Settings
Signal
Speed
System
TMoIP
Window
Zero

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 11.

1U
3U
Advanced
AFC
AGC
AM
Bit
Browser
Channel
Combiner
Control
Data
Display
Entry
Factory
FM
Frequency
Front
Generation
Main
Menu
Mode
Modulation
Output
Panel
PCM
Polarity
Presets
Quasonix
Rack-Mount
Rate
RDMS
Scale
Scaling
Screen
Selection
Setting
Settings
Signal
Speed
System
TMoIP
Window
Zero

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Versions 12 and 13.

1U
3U
Advanced
AFC
AGC
AM
Antenna
Bit
Browser
Channel
Combiner
Control
Display
Entry
Factory
FM
Frequency
Front
Generation
Main
Menu
Mode
Modulation
Output
Panel
PCM
Polarity
Presets
Quasonix
Rack-Mount
Rate
RDMS
Scale
Scaling
Screen
Selection
Setting
Settings
Signal
System
TMoIP
Window
Zero

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 14.

1U
3U
Advanced
AFC
AGC
AM
Antenna
Bit
Browser
Channel
Combiner
Control
Display
Entry
Factory
FM
Frequency
Front
Generation
IP
Main
Menu
Mode
Modulation
Output
Panel
PCM
Polarity
Presets
Quasonix
Rack-Mount
Rate
RDMS
Scale
Scaling
Screen
Selection
Setting
Settings
Signal
System
TMoIP
Window
Zero

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 15.

1U
3U
Advanced
AGC
AM
Antenna
Browser
Channel
Combiner
Control
Display
FM
Frequency
Front
Generation
Interface
Main
Menu
Mode
Modulation
Output
Panel
PCM
Polarity
Presets
Quasonix
Rack-Mount
Rate
RDMS
Scale
Scaling
Screen
Selection
Settings
Signal
System
TMoIP
Update
Window
Zero

Installation and operation of the EVTM (Ethernet Via Telemetry) Stand-alone Encoder/Decoder, designed to translate Ethernet packet data to serial streaming clock and data, for input to transmitters.

1U
Acronym
Airborne
Applications
Assignments
Channels
Connections
Connector
Connectors
Decoder
Descriptions
Drawing
Electrical
Encoder
EVTM
Front
Installation
Instructions
J1
J2
Labeled
List
Maintenance
MDM-21
MDM-9
Mechanical
Mount
Operating
Panel
Part
Pin
Product
Quasonix
Rack
Rear
Requests
RMA
Side
Socket
Stand-alone
Support
Technical
Thermal
Top
View
Views
Warranty

How to set up and use the legacy frequency and mode switchbox for TIMTER™ transmitters.

band
Bands
Box
C-band
Cable
Connector
Digit
Digits
Female
Frequency
Front
Harness
Highlighted
Instructions
List
L/S/C
Maintenance
MDM-9
Mid-C
Mode
Operation
Parsed
Pinout
Pinouts
Product
Requests
RMA
Support
Supports
Switch
Switchbox
Technical
TIMTER
Transmitter
Transmitters
Upper
Warranty

Operation of the Quasonix Ruggedized Handheld Programmer (PDA Utility), which is designed to facilitate setting transmitters and receivers for operation.

Advanced
Application
Backspace
Clear
Command
Commands
Connected
Connection
Contents
Custom
Delete
Descriptions
Device
Display
Done
Enter
Field
File
Handheld
Information
Instructions
Key
Keypad
Keys
List
Load
Main
Manual
Menu
Message
Mismatch
Name
New
Numeric
Open
Optional
Options
Package
Part
Port
Power
Preset
Programmer
Quasonix
Receivers
Removed
Save
Save–File
Screen
Screen–Custom
Scrolled
Selection
Selections
Serial
Set
Settings
Source
Standard
Tab
Terminal
Test
Transmitters
Type
User
Utility
Validate
Window
ZZ

Quasonix offers different types of integrated and add-on heat sinks, as described in this datasheet. Please contact Quasonix for heat sink recommendations for your particular TIMTER™ transmitter.

access
air
altitude
applications
ball
baseplate
Bearing
bottom
cable
CFM
connection
connector
connectors
convenient
copper
Current
dBA
Dimension
draw
Dual
enable
ensure
extender
fan
Fan-cooled
female
Fin
flow
gender
grams
HEAT
Input
lead
Level
mA
male
Material
max
MDM-15
mm
mmH2O
mounted
mounting
nanoTX
Noise
offers
Output
package
particular
Pitch
power
pressure
QSX-AC-32-HS-12V
QSX-AC-32-HS-28V-SP
Quasonix
RF
rpm
Section
Sink
SINKS
SMA
speed
standard
Static
supply
surface
System
thermal
Thickness
TIMTER
transmitter
Transmitter-powered
TRANSMITTERS
UL
VDC
Voltage
Weight

The Quasonix Space Time Coding Solution eliminates link outages caused by the “two-antenna problem,” improving behavior of received signal power and overall link availability.

106-17
2-E
Adopted
Advantages
Aeronautical
AFB
Air
aircraft
antenna
Antennas
applications
authors
availability
bandwidth
behavior
Bit
Brigham
cancel
caused
Center
Coded
CODING
Commander’s
Compatible
Complete
Conference
configuration
Council
creating
data
Dual
Edwards
Eliminates
Errors
expansion
Experimental
flight
Force
Ground
IF
II
Illustrations
Improves
installations
interference
International
IRIG
Kip
link
LOS
Lower
maneuvers
Michael
minimal
nulls
NV
originally
outages
Output
Part
path
Pattern
permission
power
problem
Proceedings
published
Quasonix
Radiation
Range
RDMS
receive
received
Receiver
Receivers
required
Results
Rice
signal
Signals
SNR
software
SOLUTION
SOQPSK
SPACE
Space-Time
spectrum
standard
station
STC
SYSTEM
Telemetering
Telemetry
Temple
test
TIME
transmit
Transmitter
two-antenna
University
upgrade
Upper
USA

The Low Density Parity Check (LDPC) Forward Error Correction mode improves link margin equivalent to nearly tripling the operating distance on your telemetry link.

bandwidth
bit
bits
block
channel
CHECK
code
coding
conditions
CORRECTION
crypto
data
dB
Decoding
DENSITY
devices
Eb
ERROR
even
fading
FM
Forward
fully
gain
LDPC
less
Link
LOW
maintain
Margin
N0
nearly
Operation
PARITY
payload
PCM
performance
Quasonix
rate
rates
receiver
receivers
sizes
subsystem
Synchronization
SYSTEM
telemetry
Transmitter

Operation of the 2nd Generation Quasonix Ruggedized Handheld Programmer, which is designed to facilitate setting up transmitters for operation.

Advanced
Application
Backspace
Bar
Button
Channel
Contents
Descriptions
Displayed
Dual
Enter
Exit
Field
Gen
Handheld
Highlighted
Information
Instructions
Internal
Key
Keypad
Keys
Legacy
List
Manual
Menu
Message
Numeric
Options
Package
Parameters
Power
Programmer
Quasonix
Screen
Single
Status
Tab
Terminal
Transmitter
Tx
TxCtrl
User
Window

Presents the theory of using the phase tree for data detection to improve bit error rate (BER), how to recognize phase noise, and when to use Phase Noise Correction (PNC).

adjacent
algorithms
analog
assumption
BER
bit
bits
Compensation
Confidential
Cycles
data
dB
decisions
demod
Demodulation
Detection
FM
following
Frequency
gain
help
helpful
Improves
known
L3
Legacy
low
Microwave
Never
Noise
nominal
path
performance
Phase
PNC
Proprietary
Quasonix
rates
Reinventing
several
signal
SNR
symbols
Symptoms
Telemetry
Time
Trajectory
transmitter
transmitters
tree
Trellis
true
Turn
TX
Vibration
worse

Installation and operation of the second-generation rackmount Quasonix Receiver Analyzer.

Adjacent
Analyzer
BER
BERT
Break
Buttons
Channel
Controls
Current
Data
Display
Error
Field
File
Frequency
Generator
Graph
Index
Interference
Limits
List
Menu
Message
Modulation
Multipath
Noise
Offset
Panel
Quasonix
RA
Rack-Mount
Receiver
Rx
Sample
Screen
Section
Settings
Setup
Status
Sweep
Sync
Test
Time
Type
Window

Operation of Quasonix’s second-generation rackmount Receiver Analyzer, including setup, tests that can be run, and troubleshooting.

Analyzer
BER
BERT
bit
Box
button
Cable
Channel
channels
Check
Click
clock
current
data
Eb
Error
file
Frequency
Generator
Laptop
level
limit
N0
Noise
Power
Quasonix
RA
Rate
Receiver
RF
Run
Rx
Saved
set
Setup
start
Status
Step
Stop
tab
Telemetry
test
Testing
Tests
time
user
WinApp
window
Windows

Installation and operation of the Quasonix 2nd Generation Rack-Mount RDMS™ Telemetry Receiver.

Advanced
AGC
AM
Band
Bit
Channel
Client
Control
Display
Entry
Error
File
Filter
FM
Frequency
Group
Highlighted
ID
Load
Locked
Main
Menu
Message
Mission
Modulation
Multiple
Network
Option
Options
Panel
PCM
Performance
Preset
Presets
Quasonix
Rack
Rack-Mount
Rate
RDMS
Receiver
Remote
Save
Scaling
Screen
Selection
Set
Setting
Settings
Signal
Telemetry
Unit
USB
Video
Window

Installation and operation of the Quasonix DMS™ multi-mode trellis demodulator / synchronizer, which is is designed to demodulate 70 MHz IF signals in multiple formats.

Acronym
Airborne
Application
Assignments
Baseband
BER
Bit
chassis
Commands
Configuration
Construction
Control
CPM
DC
Default
Demod
Demodulator
DMS
Electrical
Error
Filter
FM
Frequency
Group
Housing
IF
II
Input
Installation
Instructions
Levels
List
Maintenance
MDM-15
Mechanical
MHz
Model
Modulation
Module
Mount
MULTI-H
Narrow
Operating
Operation
Optional
Part
PCM
Performance
Pin
Plotted
Power-on
Product
Protocol
Quasonix
Rack
Rate
Ratios
Requests
Responses
RF
RMA
SAW
Serial
Signal
Signal-to-Noise
SOQPSK-TG
Span
Specifications
Standard
Startup
Support
Synchronization
Technical
Telemetry
Terminal
Thermal
Tier
Time
Timing
User
Warranty
Wide

Operating instructions for Quasonix’s third-generation compact RDMS™ telemetry receiver.

AGC
AM
Assignments
Automatic
Band
Bit
Clock
Command
Commands
Compact
Compensation
Control
CPM
Data
Digital
Error
Factory
Filter
FM
Frequency
Gain
Generation
IF
Instructions
List
Low
MHz
Modulation
Module
Multi-h
Noise
Option
Optional
Options
Output
Parameter
Parameters
PCM
Phase
Pin
Quasonix
Rate
rd
RDMS
RDMSTM
Receiver
Recommended
Reset
Responses
SAW
Serial
Settings
Specifications
Speed
Status
Telemetry
Tier
Trellis
Values
Zero

Installation, setup, and use of the RDMS™ Status Logger, for collecting mission status metrics from Quasonix RDMS™ telemetry receivers.

Add
Added
Address
API
Auto
BERT
Button
Command
Connect
Connected
Connection
Control
Detection
Disconnect
Down
Drop
Empty
Error
File
Files
Folder
Frame
Interface
IP
Library
List
Log
Logger
Logging
Main
Manager
Measurements
Menu
Message
Mission
Module
Name
New
PCM
Preset
Quasonix
Rack
RDMS
Real-time
Response
Screen
Section
Select
Selected
Serial
Session
Set
Settings
Setup
Status
Tab
Terminal
Typed
Window
Windows

How to set up tape output for third-generation Quasonix rackmount telemetry receivers, including commands, connectors used, and troubleshooting.

1U
3U
access
ahm
aho
baseband
center
Channel
Combiner
Commands
configuration
Configure
Connector
Connectors
Contact
cycling
document
Enables
feature
following
Frequencies
frequency
illustrated
List
listed
locations
Manual
MHz
mixer
modes
normal
Notes
Out
Output
outputs
Overview
p0t
Panel
persistent
Physical
power
Quasonix
RackMount
range
RDMS
Rear
Receiver
revert
Routes
section
Sets
source
support
Tape
technical
Telemetry
Telnet
Troubleshooting
unit
Video
Windows

Documents three methods for updating firmware on a Quasonix 3rd-Generation Rackmount RDMS™ Telemetry Receiver: SD Card; Network ; and Local.

Access
Browser
Card
Complete
Directions
Display
Failed
File
Firmware
Front
Info
Information
Inserted
Insertion
Instructions
Interface
Link
List
Local
Locked
Maintenance
Messages
Micro
Network
Notes
Overview
Panel
Perform
Port
Procedure
Product
Programming
Progress
RDMS
RDMS3
Ready
Requests
RMA
Screen
SD
Selected
Selection
Settings
Slot
Status
Support
System
Technical
Update
Upload
USB
Version
Warranty

Features, specifications, options, and possible band configurations for Quasonix’s third-generation compact (airborne) RDMS™ telemetry receiver.

Adaptive
AGC
analog
ARTM
axes
BER
Bits
bps
COMPACT
data
dB
dBm
demodulator
Detection
Eb
FM
Frequency
Hz
IF
II
Input
kbps
kHz
legacy
Male
Mbps
MDM
MHz
ms
N0
Noise
Operating
option
out
output
PCM
Performance
Phase
QPSK
RDMS
RECEIVER
required
RF
Section
SOQPSK-TG
steps
Synchronization
Telemetry
temperature
Tier
time
trellis
TTL
VDC

Hardware required to enable Ethernet Via Telemetry (EVTM), plus some of the advantages and possible applications.

ADVANTAGES
air
AIRBORNE
Applications
Article
Camera
Compact
Compatible
computer
connections
control
controller
Controls
COTS
data
Decoder
destination
Devices
Division
downlink
Duplex
enabled
Encoder
Encryption
Ethernet
Ethernet-enabled
EVTM
existing
extension
FDD
flight
forwarding
Frequency
GPS
Ground
hardware
ICMP
Industrial
integrated
Interface
Internet
IP
isolation
LAN
link
Links
Local
Mbps
messages
module
Monitoring
Mount
Network
Node
Operation
OPTIONAL
package
packets
port
Power
protocols
Quasonix
Rack
rates
RDMS
Receiver
recorders
security
selection
serial
solution
source
standard
Station
status
streaming
switch
system
TCP
TDD
Telemetry
Test
Time
TIMTER
Traffic
Transmitter
uplink
Video
Voice

Describes Quasonix’s telemetry receivers’ Adaptive Equalizer Mode, which combats multipath fading.

ADAPTIVE
ARTM
BPSK
Channels
cleaner
combats
CPM
decision-directed
Digital
DPM
EQUALIZER
existing
Fading
feedback
FM
harsh
Improves
LDPC
MODE
modes
Multi-h
Multipath
NEW
operation
Option
OQPSK
PCM
Processing
programming
QPSK
Quasonix
RDMS
Receiver
RECEIVERS
Reception
results
Signal
SOQPSK
SOQPSK-TG
TELEMETRY
Tier
transmitter
upgrade
Uses

Features, specifications, and options of the Gen 3 Rackmount RDMS™ Telemetry Receiver.

1U
3U
Adaptive
best
bit
Bits
channel
Chassis
Clock
Coding
Combiner
data
dB
dBm
Demodulator
DQM
Eb
Equalizer
error
Ethernet
Extended
frequency
IF
input
LDPC
link
Mbps
MHz
MOUNT
multipath
N0
Network
out
output
Outputs
PCM
Performance
Quality
Quasonix
RACK
Range
rate
RDMS
RECEIVER
RECEIVERS
RF
RS422
Source
standard
synchronization
TELEMETRY
Tier
Time

Overview of the possible configurations, features, and logged metrics of Quasonix’s RDMS™ Status Logger.

Acquisition
AGC
analysis
API
application
band
better
Bit
cable
card
combine
combiner
Compact
Compensated
competition
configuration
Configurations
connect
control
controller
customer
data
dB
demodulator
downconverter
drive
easy
equalizer
Error
Estimated
Ethernet
external
filter
Frame
Frequency
front
hard
hardware
high-performance
HTTP
includes
Index
information
Input
integrated
integrates
Integration
interface
keyboard
Level
log
logged
Logger
Logs
Loop
measurements
Metric
metrics
mission
Module
monitor
mount
Offset
panel
parameters
PC
PCM
Power
powerful
provide
provides
Quasonix
rack
Rate
RDMS
RDMST
receive
Receiver
Receiver’s
SD
selected
sensitive
sensitivity
Serial
single
software
solution
standalone
state
Statistics
Status
system
Telemetry
Timing
Tracking
Trellis
USB
used
USER
view

Quick, three-part test to verify that the RF output on a Quasonix telemetry transmitter is working correctly.

Analyzer
bit
carrier
check
clock
command
control
correct
data
enable
error
external
FR
frequencies
frequency
internal
low
Mbps
MO
mode
modulation
normal
obtained
Off
option
output
Part
pattern
pin
PN15
polarity
power
present
Quasonix
rate
RF
RS-422
RZ
Set
sets
soft
SOQPSK
source
Spectrum
state
support
sure
technical
Transmitter
Troubleshooting
Turn
type
unit
units
user
VDC
verify
waveform

Instructions for installing two 2″ x 3″ transmitter-powered heat sinks, designed for airborne applications, onto a single 4″ x 3″ dual transmitter.

15-pin
4×3
9001:2015
Adapter
adjacent
airborne
applications
Attach
block
cable
Certified
Channel
connector
designed
drawing
Drive
dual
Extender
extenders
footprint
gender
hardware
harness
Heat
holes
inch
Included
inner
inside
Installation
Instructions
ISO
kit
left
line
lined
MDM-15
Mount
mounting
optional
options
outer
outside
Pad
pads
Phone
Place
Plate
Plug
port
ports
Powered
preference
QSX-AC-32-HS-28V-SP
Quasonix
RF
screws
second
side
sink
Sinks
SMA
squarely
sure
Thermal
top
Transmitter
used

How to modify the internal overtemperature (OT) setting using the OC command. This applies to all Quasonix telemetry transmitters.

attenuators
backdown
clarification
command
contact
control
cut
cutback
dB
degrees
desired
down
drops
enabled
factory
hysteresis
integer
internal
level
levels
maximum
MINUS
nano
OC
OT
overtemperature
plus
Power
Quasonix
raise
reaches
set
setpoint
setting
specified
step
T3
T3PA
temperature
transmitter
type
user
Variable
VP

Installation and operation of Quasonix’s TIMTER™ Multi-mode Digital Telemetry Transmitters.

Adapter
ARTM
Bit
Box
Cable
Carrier
Clock
Codes
Command
Control
Data
Density
Digital
Error
FM
Frequency
Harness
Heat
Input
Interface
Legacy
Low
MDM-15
Mounted
Multi-mode
Option
Output
Package
Plate
Power
Pre-wired
Protocol
Pulse
Quasonix
Rate
RF
RS-422
Serial
Shock
Sink
Specifications
Spectrum
standard
Switch
Telemetry
Testing
Tier
TIMTER
Transmitter
Transmitter-powered
TTL
Units
Vibration
X-axis
Y-axis
Z-axis

Installation and basic operation of the Quasonix Rack Mount Multi-Channel Telemetry Transmitter.

Access
Acronym
Address
Addresses
Application
Box
Buttons
Cable
Channel
Channels
Command
Commanding
Commands
Configuration
Connection
Connector
Contents
Control
CS
DB-9
Device
Drawing
Dual
Electrical
Established
Ethernet
Found
Front
Front-Panel
Hardware
Installation
Installed
Instructions
Interface
IP
Issued
Labeled
Left
Link
List
Maintenance
Mechanical
Message
Mount
Multi-Channel
N-Connector
Network
Operating
Operation
Package
Panel
Photo
Pinouts
Pins
Port
Power
Power-on
Product
Protocol
Quasonix
Rack
Rack-Mount
Rear
Remote
Requests
Requirements
RMA
Screen
Serial
Settings
Side
Simultaneous
Specifications
Standard
Status
Support
Technical
Telemetry
Terminal
Thermal
TIMTER
Top
Transmitter
Transmitters
Typed
Users
View
Warranty
Window

Installation and operation of Quasonix’s TIMTER™ Multi-Mode Dual Telemetry Transmitters, firmware version 1.xxx. Find firmware version with VE command or in startup banner.

ARTM
Bench
Bit
Cable
Clock
Codes
Command
Commands
Configuration
Control
Density
Dual
Error
Frequency
Harness
Heat
Input
Interface
LDPC
Low
Male
MDM-15
Mount
Mounted
Multi-mode
Option
Output
Package
Power
Pre-wired
Pulse
Quasonix
Rack
Rate
Receiver
RF
RS-422
Serial
Shock
Sink
Specifications
Spectrum
Standard
STC
Telemetry
Testing
Tier
TIMTER
Transmitter
Transmitter-powered
TTL
Units
Vibration
X-axis
Y-axis
Z-axis

How to test the binary protocol of Quasonix telemetry transmitters using Binary Protocol Tester software provided by Quasonix.

Additional
ASCII
Bar
Binary
BP
BT
Button
Channel
Checked
Color
Comm
Command
Commands
Connect
Diagnostic
Display
Displays
DTX
Dual
Fields
File
Help
Info
Information
Interface
Legacy
Legend
List
Log
Menu
Message
Operation
Passthrough
Port
Ports
Protocol
Quasonix
Recall
Received
Regression
RT
Save
Set
Setup
Start
Terminal
Test
Tester
Transmitted
Transmitter
Tx
Unchecked
User
Version
View
Window
Windows

The binary serial protocol is designed to facilitate efficient machine to machine communication. This manual defines the binary protocol version 1.009.

ASCII
Band
Bands
Binary
Bit
BP
Channel
Clock
Command
Commands
Communications
Data
Definitions
Delay
Descriptions
Device
Differential
Enable
Encoding
Format
Frequency
Information
Internal
Invalid
Legacy
Level
Maximum
Minimum
Mode
Modes
NAK
New
Packet
Passthrough
Polarity
Power
Protocol
Quasonix
Randomizer
Range
Rate
Responses
RF
Save
Serial
Set
Single
Source
State
Status
Summary
Tag
TLV
Transmitter
TX
Value
Variable
Version

Explains Quasonix’s standard transmitter protocol and how transmitters with the C7 option (IRIG 106-07 control protocol) will behave differently.

Automatic
Baseband
Baud
Bit
Carrier
Channel
Clock
Code
Command
Commands
Configuration
Configurations
Control
Correction
Current
Data
Defaults
Details
Differential
Down
Encoding
Error
Forward
Free
Frequency
Help
Initialization
Interface
Internal
Interpretation
IRIG
Layer
LDPC
Level
Line
List
Mode
Modulation
Non-Standard
Off
Options
Output
Overtemperature
Pattern
Physical
Pin
Polarity
Power
Preset
Quasonix
Query
Randomization
Randomizer
Rate
Rates
Read
Recall
Reset
Restore
RF
Save
Scaling
Serial
Set
Source
Step
Summary
Temperature
Transmitter
Type
User
Variable
Version

Features, popular options, and specifications for Quasonix’s dual telemetry transmitters, which optionally support Low-Density Parity Check (LDPC) Coding and are Space-Time Coding (STC) capable.

10K
57,600
antenna
apart
ARTM
band
baud
bit
Clock
Coding
command
Control
CPM
data
dB
differential
Direct
Diversity
Dual
FM
Frequency
GND
ground
input
interface
LDPC
link
Low
lower
max
Mbps
MHz
mode
ohms
Option
Optional
Output
Outputs
PCM
power
Quasonix
Range
rate
RF
RS-422
selectable
serial
signal
SPECIFICATIONS
STC
term
Tier
TIMTER
Transmitter
transmitters
TTL
typical
upper
VDC
voltage
Watt

Features and specifications for the picoTX™, the world’s smallest 1-Watt telemetry transmitter.

accuracy
Altitude
ARTM
automatic
band
bandwidth
bit
Board
Built-in
Carrier
consumption
controller
current
Data
Designed
desired
Dimensions
Environmental
Environments
Equals
external
Extremely
filtering
Fixed
Flexible
flight
Flights
FM
frequency
frequency-agile
ft
half
heat-sinking
humidity
If
inch
inches
including
Input
interfaces
introduces
larger
Longer
Low
mA
Main
maximum
Mbps
measures
mere
MHz
Microcontroller
minimal
models
Modulation
Mounts
mW
needed
non-condensing
Non-operating
Operates
Operating
ordering
output
oz
packages
PCM
performance
Physical
picoTX
power
ppm
Pre-mod
programmed
Quarter
Quasonix
range
rate
required
requires
RF
S-BAND
Section
Shock
Signal
smallest
solution
SPECIFICATIONS
specify
Supports
system
telemetry
temperature
test
things
Tier
transmitter
TTL
tuning
type
VDC
voltage
Watt
Weighs
weight
world’s
years

Features, options, specifications, and select accessories for Quasonix’s range of multi-mode telemetry transmitters, including nanoTX™ and nanoPuck™.

ARTM
Band
baseband
baud
bit
carrier
Clock
Code
connector
contact
Control
Data
dual
FM
frequency
hardware
Input
interface
kbps
low
lower
MA
Max
Mbps
MHz
mode
models
mW
mWatt
nanoPuck
nanoTX
ohms
Option
output
packages
PCM
pin
power
Quasonix
range
Rate
RF
RS-422
Serial
settings
Tier
TIMTER
Transmitter
transmitters
TTL
typical
VDC
voltage
Watt

Installation, setup, and use of the Antenna Control Unit (ACU) Graphical User Interface (GUI), for controlling Quasonix pedestal and portable telemetry antennas. Software Version 0.10.38

Active
ACU
Add
Advanced
AGC
Axis
AZ
Azimuth
Bar
Box
Buttons
Computer
Condition
Control
DACU
Designates
Dialog
Display
EL
Elevation
Fault
Front
General
Help
IMU
Indicators
Instruction
List
Local
Logging
Manual
Mode
Panel
Position
Quasonix
Set
Settings
Slave
Software
Stabilization
Status
Stow
Sub-window
System
Tab
TDC
Test
Tool
Tools
Track
Tracking
Trigger
Window
Windows

Features of the QTrack™ telemetry antenna and its accompanying Antenna Control Unit (ACU), plus specifications.

ACU
amplitude modulation
ANTENNA
Acquisition Aid
beam
camera
Comprehensive
continuous azimuth travel
CONTROL
dB
dual-axis pedestal
Elevation
Ground Station
low-gain
mast-mounted
MHz
MPH
portable
remote
scan
SPECIFICATIONS
sweep
Temperature
tracking
user interface

Catalog of products including Rackmount and Compact RDMS™ Receivers; TIMTER™, nanoTX™, and nanoPuck™ Transmitters; transmitter accessories and heat sinks; Ethernet Via Telemetry (EVTM); and the Receiver Analyzer.

1U
3U
5-band
acquisition
adaptive
add-ons
amplifier
Analyzer
application-specific
ARTM
automates
better
bigger
bit
break
brother
channels
Check
Coded
combination
combiner
combining
compact
competition
complete
Configurations
contiguous
contiguously
coverage
covering
CPM
dB
dBm
decoding
delivering
demodulator
Density
diminutive
display
diversity
efficient
elegant
encoded
equalizer
error
exceptional
extremely
features
finest
flexibility
flight-ready
FM
frequency
Generation
generators
GHz
highest
include
including
index
integrated
Introducing
levels
Low
Lower
market
matter
MHz
modes
modulation
mount
multi-band
Multi-h
multi-mode
nanoTX
new
noise
offers
optional
package
Parity
PCM
performance
performing
power
rack
Rack-Mount
range
rate
rd
RDMS
Receiver
sensitivity
signal
signals
single
size
smallest
SOQPSK
SOQPSK-TG
Space
spectrum
synchroniza
synchronizer
tailoring
Telemetry
testers
tests
third
threshold
Time
TIMTER
touchscreen
Transmitter
tuning
ultimate
unit
Upper
value
watts
wide

Certificate showing assessment of the Quasonix West Chester facility’s Quality Management System by Eagle Registrations, Inc. and conformation to the ISO 9001:2015 standard.

Certificate No. 5024 (Recertified June 25, 2023)
June 25, 2023 through June 24, 2026
Certificate of Registration
This is to certify that the Quality Management System of
Quasonix
6025 Schumacher Park Drive, West Chester, Ohio 45069 USA
Has been assessed by EAGLE Registrations Inc. and
conforms to the following standard:
ISO 9001:2015
Scope of Registration
Designs and Manufactures Radio Telemetry Products for the
Commercial and Government Sectors

Outline of how Quasonix processes correspond to the requirements frequently found in customer quality notes.

Approach
Article
assemblies
ATP
authority
basis
case-by-case
certificate
certified
Control
corrective
COTS
CUI
customer
delivery
design
does
ESD
established
F-20
FOD
fully
includes
including
Inspection
Items
limited
Material
materials
meet
Nonconformance
Notes
notice
operators
order
packaging
Page
parts
procedures
process
processes
product
products
provide
purchased
quality
Quasonix
quoted
record
records
requirements
reviewed
Revision
send
shipped
specifications
standard
Subject
suppliers
Terms
test
tested
Traceability
unit
updated
years

Installation and operation of Quasonix’s Legacy Dual Telemetry Transmitters.

AC
Accessories
Acronym
ARTM
Automatic
Band
Baseband
Baseplate
Baud
Bench
Bit
BRx
C7
Cable
Carrier
CE
CF
Check
Clock
Clock-free
Codes
Coding
Command
Commands
Compact
Connections
Control
Converter
Convolutional
Correction
CP07
Current
Data
Density
Depth
DP
Dual
Electrical
EMI
Encoder
Environmental
Error
Field
FIFO
Forward
Frequency
Gender
Handheld
Hardware
Harness
Heat
Holdoff
HR
ID
II
Input
Inputs
Installation
Instructions
Interface
Internal
LDPC
Legacy
Level
List
Low
LR
Maintenance
MDM-15
Mechanical
Model
Modulated
Mount
Noise
Notes
Operating
Operation
Option
Optional
Output
Package
Parity
Performance
Phase
Power
Power-on
Pre-wired
Product
Programmer
Protocol
PSK
Quasonix
Rack
Range
Rate
Recall
Receiver
Reference
Requests
Reverse
RF
RG
RH
RMA
RS-422
Ruggedized
Serial
Set
Shock
Sink
SOQPSK
Space-Time
Specifications
Spectrum
Standard
STC
Supply
Support
Technical
Telemetry
Temperature
Testing
Thermal
Tier
TIMTER
Transmitter
Transmitter-powered
Troubleshooting
TTL
Tuning
Units
USB
Variable
VF
Vibration
Voltage
VP
VR
Warranty
Wave
Wide
Wiring
WV

Installation and operation of Quasonix’s GMLRS multi-mode digital telemetry transmitters.

ARTM
Band
Bit
Carrier
Clock
Codes
Connector
Control
Error
Fan-cooled
Female
Field
Frequency
GMLRS
Heat
II
Input
Instructions
Interface
Limit
List
Low
Male
Mask
MDM-9
Mode
Mounted
Negative
Option
Options
Output
Package
Positive
Power
Pre-wired
PSD
Pulse
Quasonix
Rate
RF
Shock
Sink
Specifications
Spectrum
Standard
Supply
Telemetry
Testing
Tier
TIMTER
Transmitter
Vibration
X-axis
Y-axis
Z-axis

Installation and operation of Quasonix’s nanoTX™ and nanoPuck™ Multi-Mode Digital Telemetry Transmitters.

01AA
01AB
01PD
01PE
ARTM
Assignments
Baseband
Bit
Cable
Carrier
Clock
Codes
Command
Control
Current
Data
Drawing
Error
Frequency
Harness
Input
Interface
Low
Nano-D
nanoPuck
nanoTX
nanoTXTM
Numbering
Option
Outline
Output
Package
Pin
Power
Pre-wired
Pulse
Quasonix
Rate
RF
Serial
Shock
Specifications
Spectrum
Standard
Telemetry
Testing
Tier
Transmitter
Vibration
X-axis
Y-axis
Z-axis

How to set up and use the second-generation digital frequency and mode switchbox, released in 2018, for TIMTER™ transmitters.

Adjustments
Blinking
Box
Brightness
Cable
Channel
Code
Configuration
Connector
Disabled
Display
Displays
Drawing
Error
Female
Frequency
Generation
Glowing
Harness
Increase
Instructions
Internal
Key
Labeled
LDPC
LED
LEDs
List
Maintenance
MDM-9
Mode
Parameters
Pinout
Pinouts
Press
Product
Quasonix
Red
Requests
RMA
Segment
Select
Selection
Sets
Settings
Support
Switch
Sync
System
Technical
TIMTER
Transmitter
Transmitters
Warranty

Installation and operation of the second-generation Quasonix Compact RDMS™ Telemetry Receiver.

37-Pin
Additional
Assignments
Band
BER
Bit
Chassis
Clock
Codes
Commands
Compact
Configuration
Control
CPM
Demodulation
Detailed
Detection
Error
Factory
Filter
FM
Gain
Group
IF
II
Impact
Input
Instructions
List
MDM-15
MHz
Module
Multi-h
Noise
Option
Optional
Options
Parameters
PCM
Performance
Phase
Pin
Quasonix
Rate
RDMS
RDMSTM
Receiver
Reset
Responses
RF
SAW
Serial
Span
Specifications
Stored
Synchronization
Telemetry
Tier
Trellis
Values
Wide

Feature comparison of Gen 2 and Gen 3 rackmount RDMS™ Receivers, showing the advancements of Gen 3 and enhancements available in the 3U model.

1U
30x
3U
7-inch
Adaptive
AFC
AGC
AM
analog
ARTM
Automatic
BERT
Best
Best-source
bit
BiΦ-L
browsers
Built-in
chassis
checking
clock
Coding
combiner
compensation
Complete
computer
control
data
dB
decoding
deframing
demodulation
demodulators
detection
display
diversity
DM-M
downconversion
dynamic
Easy
Encapsulation
Enhanced
equalizer
Ethernet
external
extraction
faster
field
FM
Full-color
GUI
HDMI
header
high-speed
IF
Improved
improvement
includes
index
industry
input
Integrated
interface
LDPC
legacy
loop
low-speed
M2-M
Maximal
MHz
mode
modes
modulation
multiple
noise
NRZ-L
output
outputs
Payload
PCM
performance
Phase
playback
pre-D
Quality
rack-mount
range
Rapid
ratio
receiver
receivers
Remote
RS-422
RZ
self-test
SFID
Simultaneous
single-symbol
SOQPSK
SOQPSK-TG
Space-Time
Spectrum
standard
status
STC
synchronization
touchscreen
tracking
trellis
True
TTL
Tuning
Typical
upgrades
USB
video
web
Windows
zeroing

Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 16.

1U
3U
Advanced
AFC
AGC
AM
Antenna
Best
Best-Source
Bit
Browser
Certificate
Channel
Clock
Combiner
Control
Controls
Data
Display
Down
Drop
Entry
Factory
FM
Frequency
Front
Generator
Interface
IP
Main
Menu
Mode
Modulation
Monitor
Noise
Only
Output
Panel
Pattern
PCM
Polarity
Presets
Rate
RDMS
Scale
Scaling
Screen
Selection
Selector
Setting
Settings
Signal
Source
System
Test
TMoIP
Update
Video
Window
Zero