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Privacy Policy2024.04.22

Last updated Monday, April 22, 2024

Quasonix, Inc. owns and operates the https://www.quasonix.com website. This policy explains how we use any personal information that you may provide to us through our website.

Our Philosophy

We respect your privacy and are committed to protecting it:

  • We only collect the information necessary to provide you with services that you request and to improve our customer support.
  • Any personally identifying information will only be collected because you have explicitly chosen to provide it to us.
  • We do not sell, nor have we ever sold, any personal information.
  • We will only retain personally identifying information for the period necessary.
  • We will be happy to respond to any concerns about the data collected.

Personal Data Collection

Personal data is any information that can directly or indirectly be linked to an individual or household. Examples include your name, email address, and IP address.

This is the personal data we collect:

  • Data used for sales support, technical support, and replies to requests for information:
    • Collection method: Website contact form (converted to email received by Quasonix)
    • Legal basis for collection: Consent and/or performance of a contract
    • Information collected: First name (optional), last name (optional), email address, IP address, physical address (for RMA requests only), supplementary information so that we can provide sales and technical support (ad hoc)
    • Data shared with: Pertinent local sales representative or distributor, if relevant – AeroGear Telemetry (Eastern / Southern United States); Elotek Systems, Inc. (Western United States); Instrumentation Devices (Italy); NPrime (United Kingdom); BDSI (all other countries)
    • Retention period: Through the period of providing service or of using the data for our legitimate interest, whichever is longer
    • Notes: The email address is required for communication. The IP address helps us determine whether the incoming message is spam or legitimate. Contact-form information and any subsequent emails are stored by and only accessible to Quasonix and, if relevant, local sales support.
  • Data used for newsletter sign-up:
    • Collection method: Sign-up form (processed via third-party service, Mailchimp)
    • Legal basis for collection: Consent
    • Information collected: email address, IP address, geolocation based on IP address, language (based on browser language)
      • After you subscribe, Mailchimp tracks when you open newsletter emails and when you click on links. This helps us know which information is of the most interest to you, to improve future editions of the newsletter.
    • Data shared with: Mailchimp
    • Retention period: 1 month after unsubscribing
    • Note: This information is stored by MailChimp on servers in the United States.

In addition to the legal bases listed above, we may process your personal data for the following reasons:

  • Legal obligations: We may process your information where we believe it is necessary for compliance with a law enforcement body or regulatory agency, to exercise or defend our legal rights, or to disclose your information as evidence in litigation in which we are involved.
  • Vital interests: We may process our information where we believe it is necessary to protect your vital interests or the vital interests of a third party, such as situations involving potential threats to the safety of any person.

We also collect data for website analytics. However, no personal data is included.

  • Data collected for website analytics:
    • Collection method: Third-party service (Matomo)
    • Information collected –
      • Title of the page being viewed
      • URL of the page being viewed
      • Date and time of the request
      • Type of referrer (search vs social vs website vs direct) – records the name of the search engine or social network that was used; however, no URLs and no keywords are stored
      • Screen resolution being used
      • Time in local user’s time zone
      • Files that were clicked and downloaded from our site
      • Links to an outside domain that were clicked from within our site
      • Page generation time (the time it takes for webpages to be generated by the webserver and then downloaded by the user)
      • Location of the user (geolocation) to the extent available from the anonymized IP address
      • Main Language of the browser being used
      • User Agent of the browser being used – allows detection of the browser, operating system, device type (desktop, tablet, mobile, tv, cars, console, etc.), device brand, and device model
    • Data shared with: No one – the tracking data is owned by Quasonix and is securely stored via Matomo on a server in Frankfurt, Germany.
    • Retention period: 180 days for raw data
    • Note: IP addresses are anonymized to two bits (i.e., they end in “.000.000”); no user IDs are used; no cookies are set. Information collected is used only for analytics. We honor all “Do Not Track” (DNT) requests; you can turn on DNT on in your browser.

We store data from website searches (i.e., searching for a term within our website). We use this information to better understand what users are searching for and improve the content of the website. If you enter personally identifying information (such as your name) into a search, that information will be retained.

Users of our site are responsible for any third-party personal data published or shared through our site and confirm that they have the third party’s consent to provide the information to Quasonix, Inc.

As of April 18, 2024, our website does not use cookies. You may have unused cookies left over from before this date. These can be cleared via your browser.

Your Rights as the Owner of Personal Data

Data protection rights vary by jurisdiction and change over time. For more information about the rights that pertain to you, please contact your local Data Protection Authority. Common data protection rights include but are not limited to:

  • The right to know what personal data is collected about you
  • The right to access to your data
  • The right to update or correct your data
  • The right to the erasure of your data
  • The right to withdraw consent for data collection
  • The right to restrict the use of your data for marketing purposes or in other specific cases
  • The right to opt-out from sales of your personal information to third parties
  • The right to non-discrimination related to the exercising of your rights

Please contact us if we can help you in respect to any of these. Note that we may ask you to verify your identity before responding to such requests.

Children’s Privacy

This website is intended for commercial use by telemetry professionals. As such, our service does not address anyone under the age of 18 (“children”). We do not knowingly collect personally identifiable information from anyone under the age of 18. If you are a parent or guardian and you are aware that your child has provided us with personal data, please contact us. If we become aware that we have collected personal data from a child without verification of parental consent, we will remove that information from our servers.

Security

The security of your personal information is important to us. Your information, including personal data, may be transferred to — and maintained on — computers located outside of your state, province, country, or other governmental jurisdiction where the data protection laws may differ from those from your jurisdiction. We use industry-standard IT solutions and will take all steps reasonably necessary to ensure that your data is treated securely and in accordance with this Privacy Policy and no transfer of your personal data will take place to an organization or a country unless there are adequate controls in place including the security of your data and other personal information.

Links to Third-Party Sites

Our service contains links to sites that are not operated by us, such as manufacturers of some of our accessories and social media sharing. If you click on a third-party link, you will be directed to that third party’s site. We recommend that you review their Privacy Policies before actively using their site. We have no control over and assume no responsibility for the content, policies, or practices of any third-party sites or services.

Changes to this Privacy Policy

This Privacy Policy is effective as of Monday, April 22, 2024 and will remain in effect except with respect to any changes in its provisions in the future, which will be in effect immediately after being posted on this page.

We reserve the right to update or change our Privacy Policy at any time and you should check this Privacy Policy periodically. Your continued use of the service after we post any modifications to the Privacy Policy on this page will constitute your acknowledgment of the modifications and your consent to abide and be bound by the modified Privacy Policy.

If we make any material changes to this Privacy Policy, we will notify you either through the email address you have provided us or by placing a prominent notice on our website.

Contact Us

If you have any questions about this Privacy Policy or any concerns about your own personal data, please contact us:

Quasonix, Inc.
6025 Schumacher Park Drive
West Chester, OH 45069
UNITED STATES

Phone: +1 (866) 787-6649

Email: info@quasonix.com

Website contact form: https://www.quasonix.com/contact

nonepolicy-document company
Quasonix Connection Newsletter

Our newsletter will help you get the most out of your products

  • Receive notifications of software/firmware updates
  • Get tips for using our products efficiently
  • Learn about our latest innovations and advancements in the industry

The emails are sent 3-4 times a year. You can easily unsubscribe at any time.

Get more out of your telemetry gear. Get connected.

We use Mailchimp as our email newsletter platform. By clicking Subscribe, you acknowledge that your email address will be transferred to Mailchimp for processing. See our Privacy Policy for more information.

Recent Newsletters

Quasonix is On the Moon

QUASONIX CONNECTION April, 2024 Topics: – Quasonix is On the Moon – Gen 4 Transmitters: Available in a Configuration for You – ITC Highlight Reel

New at ITC 2022 – Don’t Miss Out!

QUASONIX CONNECTION October, 2022 Topics: – See what’s new at ITC! – QBeam™ Digital Beamformer NEW – TMoIP Processor NEW – QSight™ Boresight System NEW – And that’s not all!

Twenty Years of… Reinventing Telemetry™

QUASONIX CONNECTION June, 2022 Topics: – Twenty Years of… Reinventing Telemetry™ – Coming Soon: Receiver Analyzer 3.0 – Zen and the Art of Antenna Maintenance – RDMS™ Release 19.3 Now Available – Sneak Peek: PD900 Antenna

Delivered: Eleven HyperTrack™ Systems in Seven Months

QUASONIX CONNECTION February, 2022 Topics: – Delivered: 11 HyperTrack™ Systems in 7 Months – What is HyperTrack™ – Why Choose Quasonix?

Status Logger Steps it Up

QUASONIX CONNECTION November, 2021 Topics: – Status Logger Steps it Up – RDMS™ Release 19.2 Now Available
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Transmitter Package 04AP Model (3 MB Download)2024.03.28

STEP (ISO 10303-21) 3D model of the Quasonix 04AP telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AP Drawing2024.03.28

Mechanical line drawing of the 04AP telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing
Quasonix is On the Moon

News from the company that’s…

Reinventing Telemetry™

April, 2024

In this issue:

Quasonix is On the Moon

Quasonix is proud to be an integral part of Intuitive Machines’ recent IM-1 mission Moon landing.

The mission was highly successful, overcoming many obstacles, including a difficult touchdown that resulted in the lander, named Odysseus, tipping mostly on its side. This unplanned orientation reduced the exposure of the lander’s solar panels to the sun, producing a fraction of the expected power. The lander’s attitude also pointed the high-gain antenna at the lunar surface instead of the earth. Because the high-gain antenna was unusable, four low-gain hemi antennas were used for data transmission.

Odysseus used a Quasonix transmitter to send science and engineering data to Earth, captured by a network of large radio astronomy dishes around the world. The transmitter used is part number QSX-VSR4-0101-25-80-04AB-CE-VP, a 25-watt S-band unit with SOQPSK and BPSK/QPSK/OQPSK modulations (use of OQPSK was planned for the mission), equipped with Convolutional Encoder (1/2 rate with K=7) and Variable Power (31 settings spanning 24 dB).

Despite the suboptimal antenna array and severe multipath, more than 1.7 gigabytes of science and engineering data was collected across all payloads. The available solar energy was initially considered insufficient to fully power the lander and the transmitter for the full mission. Nonetheless, our efficient transmitter was downloading data right up to lunar nightfall, concluding seven days of lunar surface operations.

Credit: Intuitive Machines

This was the first U.S. soft landing on the Moon in more than 50 years, but the mission is being hailed as a triumph for much more than that. In addition to successfully proving a number of technological breakthroughs, this was the first commercial Moon landing ever – a harbinger of costs an order of magnitude lower than government-operated programs.
 
The Quasonix transmitter used by Intuitive Machines fits neatly into that equation. It was an unmodified COTS product – the same as any other customer could buy. Read on to learn more about how we’ve got the right transmitter for your needs.

Gen 4 Transmitters:

Available in a Configuration for You

First introduced in 2021 in select units, Quasonix’s fourth generation of transmitters is now shipping across all configurations.

This new breed of transmitters builds on the unparalleled performance, value, and durability of our legacy units, adding numerous improvements like better DC-to-RF efficiency and reduced operating current draw, better BER at low and high bit rates, improved reliability and availability of components, support for bidirectional EVTM, and the extension of LDPC to include all six LDPC codes (versus one in the Gen 3 family). You can read more about the huge advantages of LDPC coding here.

Take your telemetry to the next level – even if that’s to the Moon. Contact Quasonix today to learn more.

ITC Highlight Reel

It’s hard to believe that we’re almost midway between last year’s ITC and the 2024 conference. While we’ve got a lot planned for the future, we want to take a few minutes to look back at some “greatest hits” from 2023.

This is the part of the newsletter where a lot of companies would show off the products that were popular at ITC. (Don’t worry, we’ll cover a couple of sensational new products for you in a minute.) But Reinventing Telemetry™ starts with great thinking.


Papers and Awards
Mark Geoghegan is no stranger to ITC, nor to accolades for his papers. This year, Mark scored his third “Best Paper” award for Data Quality Metric (DQM) – How Accurate Does it Need to Be? The paper “investigates the MLBD [Maximum Likelihood Bit Detection] performance loss caused by DQM estimation error. The objective is to gain insight into the sensitivity of the overall bit recovery system and to use the results to help establish tolerance levels in DQM test procedures. This relationship provides the means to guarantee that the DQM accuracy is sufficient to meet or exceed a specified level of system performance which is the goal of DQM testing.”

Sean Wilson, a product leader for Quasonix EVTM, was involved in two papers and presented Ethernet via Bidirectional Packet Based Telemetry – Frequency Division Duplex (FDD) vs. Time Division Duplex (TDD). This analysis, founded on in-depth lab testing, “identifie[s] some key tradeoff areas to be considered when selecting between two bidirectional telemetry link approaches.” Spoiler alert: There’s no single best solution. Sean (and Quasonix) are here to help you make the best decision for your particular situation.

Terry Hill, President of Quasonix, presented Meaningful G/T Measurements – Made at Night. “The conventional method of measuring G/T for directional antennas seems simple: measure received power while pointing the antenna at the sun, repeat the measurement while pointed at ‘cold sky’, and do a few simple calculations. This paper briefly summarizes the many sources of error in this technique and then presents an alternative approach using a calibrated signal source instead of the sun…. The proposed approach can be applied to any type of receiving system (including active antennas and multi-beam phased arrays) and yields G/T results that apply meaningfully to the link budget.”


Products
This year, Quasonix debuted our Maximum Likelihood Stream Combiner™ (MLSC™) and its sister product, our Best Source Selector Analyzer (BSSA).

The MLSC is a new approach to Best Source Selection that extracts optimal data from multiple received signals. Brought to you by the engineering team that developed the industry’s premier Best Channel Selector, the MLSC leverages an industry-leading implementation of Data Quality Encapsulation (DQE) plus Maximum Likelihood Bit Detection (MLBD) and proprietary Quasonix algorithms to improve your received data accuracy under the most challenging conditions.

MLBD is only optimal if all received data streams are able to participate in the combining process at all times. This requires seamlessly maintaining stream alignment at the bit level, while tracking signals through the deep fades that are typical of serial streaming telemetry channels, and almost instantly reacquiring and realigning those streams that lose lock. The resulting system can easily track Doppler rate differentials due to the fastest of targets, well above Mach 25.

Not only does the MLSC derive the lowest achievable output bit error rate possible, it also constructs accurate DQM for the output stream, which can be used in cascaded MLSC™ arrangements or by other downstream equipment.

The net result of using the Quasonix MLSC is huge performance gains – greater than 6 orders of magnitude in BER over the BER of the best single stream, given 8 streams with BERs between 10% and the best single stream.

The BSSA is a unique tool that emulates real-world channel conditions across all received signals in a range, allowing precise, repeatable BSS testing. This capability enabled rigorous analysis and honing of the MLSC throughout its development.

The BSSA makes it possible to evaluate the performance of different BSS units or settings, allowing you to compare results against theoretical best achievable performance. Its 12 independent data generators are capable of emulating a multitude of best source selection challenges such as channel delay, Doppler effects, variable bit error probability, receiver sync loss, and more. Twelve PCM I/O and twelve TMoIP I/O are independently configurable as input or output, with the ability to monitor and report results for up to four simultaneous channel groups. Tests are precisely repeatable down to the last bit, so it’s easy to make valid comparisons of any equipment across a wide variety of scenarios.

Contact Quasonix to learn more about one or both of these exciting new offerings.

Transmitter Package 06AP Drawing2023.09.29

Mechanical line drawing of the 06AP telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Rackmount Transmitter Platform2024.03.12

Easy Does It

With integrated cooling, a browser interface, a new API, and high-quality components throughout, our Rackmount Transmitter Platform simplifies deployment and operation of your telemetry transmitters.

Contact Sales

Rackmount Enclosure — Rugged 2U rackmount chassis provides a single box accommodating up to four (4) 2” x 3” or two (2) 4” x 3” transmitters (transmitters sold separately).

Flexible Transmitter Options — Choose up to four (4) single output transmitters or up to two (2) dual output transmitters.

Browser-Based GUI — Easy-to-use, intuitive web interface, using any ordinary browser to control the transmitters. Detailed logging includes history of changes made to the transmitters.

NEW! Applications Programming Interface (API) — Provides powerful access to status and control of the transmitters by a client computer.

Strong Administrative Functions — Manage transmitter names, user privileges, clock settings, IP address, and system.

Field Upgradable Software — Update to the latest software from the client browser.

Master RF On/Off — Ability to enable/disable RF on all channels via a secure locking toggle switch.

Exceptional Cooling — Internal heat sinks and fans provide the cooling power to keep transmitters operating at peak performance.

High Quality Connectors — Uses the same BNCs and N connectors found on our rackmount receivers.

Available 85 VAC to 264 VAC, 50/60 Hz or 120 to 370 VDC Operation — Specify AC or DC operation.

Product Literature

Available Options

The transmitter platform itself comes fully featured with no additional options.

Option Literature

Accessories

Accessory Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

rackmount-transmitter-platform transmittersother-product-information literature

QSight™ L/S/C-Band Boresight System2024.03.06

Trust But Verify

The QSight™ system is a multi-band, high-powered, boresight RF test source. It allows an operator to verify that the receive range telemetry system is properly configured and operating as expected prior to a mission, preventing costly test failures.

Integrated Transmit Assembly (TA) — L, S, and C bands are covered with the dual-output transmitter and the dual polarization (H and V) antenna.

2U Rackmount Chassis — The Controller Assembly (CA) resides on the user’s network and supports a user interface via an embedded web server and the user’s browser. A single cable connects the CA to the Transmit Assembly (TA).

Data Sources from Internal Data Generators and User Supplied Data — With data rates from 24 kbps to 46 Mbps, the QSight provides standard PN generators from the internal transmitter, including user defined patterns, as well as PCM frame assembly with programmable frame header and size; RS-422 or TTL data with clock-free operation; IRIG 218 (TMoIP) stream.

120 dB Output Power Range — Power and polarization calibrated from –40 to +40 dBm EIRP; Operational down to –80 dBm EIRP.

Drives Both Ports in Phase or 90° Shifted or Drives One Port, H or V — Dual Transmitter drives Vertical and Horizontal antenna elements to produce any angle linear, or Left Hand or Right Hand circular polarization.

Accessible from Any Browser – The QSight User Interface provides remote configuration, control, and monitoring of the system. All settings of the TA can be changed easily and quickly during testing, including frequency, modulation, power, and data rate.

Optional Ethernet Accessories — Camera with Ethernet interface; positioner with Ethernet control.

Product Literature

Available Options

  •  Ethernet based camera
  •  Dehydrator
  •  Outdoor enclosure (DDB 7U enclosure)
  •  EVTM Encoder
  •  MPT-50 positioner

Option Literature

Accessories

Accessory Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

qsight-boresight test-equipmentother-product-information literature

Transmitter Package 06AJ Model (<1 MB Download)2024.03.05

STEP (ISO 10303-21) 3D model of the Quasonix 06AJ telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AR Model (1 MB Download)2024.02.26

STEP (ISO 10303-21) 3D model of the Quasonix 04AR telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AR Drawing2024.02.26

Mechanical line drawing of the 04AR telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

TIMTER™ Transmitters2024.02.28

Fourth-Generation Powerhouse

Quasonix digital multi-mode telemetry transmitters are the benchmark of the industry, providing unparalleled performance and value, in small, robust, power-efficient packages. The TIMTER™ transmitter, now in its third generation and smaller than ever at 4.1 cubic inches, offers the most versatility of any transmitter in the industry, with advanced capabilities like L/S/C frequency tuning and output power up to 25 Watts.

ARTM Modulations

Quasonix transmitters offer three different modulations of increasing spectral efficiency – PCM/FM, SOQPSK-TG, and Multi-h CPM – also known as ARTM Tiers 0, I, and II, at standard bit rates from 0.1 to 28 Mbps (0.05 to 14 Mbps for PCM/FM).  Options (HR/LR) are available to extend the upper limit to a maximum of 46 Mbps (23 Mbps for PCM/FM) and the lower limit to a minimum of 50 kbps (25 kbps for PCM/FM). With bandwidth at a growing premium in flight test telemetry, you can take advantage of 2 to 2.5 times the data capacity of the legacy PCM/FM waveform with SOQPSK-TG and Multi-h CPM.

Product Configurations

RF Output Power

  • 10 mW, 1 W, 5 W, 10 W, or 20 W
  • S band also available in 25 W

Frequency Band

  • Lower L band (1435.5 MHz – 1534.5 MHz)
  • Upper L band (1750.0 MHz – 1855.0 MHz)
  • S band (2200.5 MHz – 2394.5 MHz)
  • L/S band
  • C band (4400.0 MHz – 4940.0 MHz)
  • C band with “mid” option (C + 5091.0 MHz – 5150.0 MHz)
  • Euro Mid C (5150.0 MHz – 5250.0 MHz)
  • L/C band
  • S/C band
  • L/S/C band

Baseband Interface

  • TTL or TIA/RS-422 (RS-422)

Other Highlights

  • Outputs from 10 mW to 25 W and optional variable power – all while drawing less current than the competition
  • Supports migration to 4400-4950 MHz and 5091-5150 MHz bands at 5 W or 10 W
  • Automatic Data Rate Tracking
  • As long as the external clock remains within specified data rates, the transmitter will automatically adjust to it with no programming or configuration required
  • Bypassable Randomizer
  • Standard IRIG-106 fifteen-stage randomizer, for applications with non-encrypted data
  • Straightforward configuration and control and platform-independence with serial terminal programming

Product Literature

Available on Most Transmitters

  • Low Density Parity Check (LDPC) Error Correction System
  • Multiple hardware-selected presets (2, 4, 8, or 16)
  • Wide input voltage range
  • Clock generator output to baseband connector
  • Randomizer output to baseband connector
  • Dual power (two settings, “high” and “low”)
  • Variable power (32 discrete power level settings, spanning 24 dB)
  • Clock-free baseband interface
  • High bit rate option increases maximum bit rate to 46 Mbps (23 Mbps for Tier 0)
  • Low bit rate option decreases minimum bit rate to 50 kbps (25 kbps for Tier 0)
  • Parallel port frequency programming
  • Parallel port mode selection
  • Automatic carrier wave output

Option Literature

Accessories

Accessory Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

timter transmittersother-product-information literature

Transmitter Package 07BK Drawing2023.09.06

Mechanical line drawing of the 07BK telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 01BA Drawing2024.02.02

Mechanical line drawing of the 01BA telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 07BK Model (<1 MB Download)2023.09.06

STEP (ISO 10303-21) 3D model of the Quasonix 07BK telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 01BA Model (<1 MB Download)2024.02.02

STEP (ISO 10303-21) 3D model of the Quasonix 01BA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing
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Maximum Likelihood Stream Combiner™2024.03.07

“Best” Just Got Better

Introducing the Quasonix Maximum Likelihood Stream Combiner™, a new approach to Best Source Selection that extracts optimal data from multiple received signals. Brought to you by the engineering team that developed the industry’s premier Best Channel Selector, the MLSC™ leverages Data Quality Encapsulation (DQE), Maximum Likelihood Bit Detection (MLBD), and proprietary Quasonix algorithms to improve your received data accuracy under the most challenging conditions.

Key Features

  • Industry-Leading Implementation of the DQM/DQE Industry Standard — The MLSC faithfully implements MLBD, using the Data Quality Metric (DQM) for each bit of every bit stream to determine the most likely correct output bit. Not only does the MLSC derive the lowest achievable output bit error rate possible, it also constructs accurate DQM for the output stream, which can be used in cascaded MLSC™ arrangements or by other downstream equipment.
  • Superior Dynamic Acquisition and Tracking Performance — MLBD is only optimal if all received data streams are able to participate in the combining process at all times. This requires seamlessly maintaining stream alignment at the bit level, while tracking signals through the deep fades that are typical of serial streaming telemetry channels, and almost instantly reacquiring and realigning those streams that lose lock. The resulting system can easily track Doppler rate differentials due to the fastest of targets, well above Mach 25.
  • Huge Performance Gains — Greater than 6 orders of magnitude in BER over the BER of the best single stream, given 8 streams with BERs between 10% and the best single stream.
  • Affordable and Scalable — Twelve PCM I/O and twelve TMoIP I/O are independently configurable as input or output for MLSC groups, with up to twelve input channels and four channel groups (outputs) per unit. MLSC units can be cascaded to achieve any number of channels for larger systems and can be paralleled to support any number of channel groups.
  • Easy to Set Up and Use — Automatic DQE frame detection; local front panel interface with four displays for health and status monitoring, including presentation of DQM, time skew, and source-selection state; browser interface for health status monitoring, including integrated status reporting and logging such as input and output quality and quantifications of improvement.
  • Supported by Lifetime Software Updates — Easily field upgradeable.

Product Literature

Available Options

The MLSC is full-featured out of the box and has no additional options.

Option Datasheets and Guides

Accessories

Accessory Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature

TMoIP Processor Model (2 MB Download)2024.01.04

STEP (ISO 10303-21) 3D model of the Quasonix TMoIP Processor.

tmoip-processor networkingstep-model drawing

RDMS™ Compact Receiver-Combiner2024.01.02

The Industry’s Premier Receiver Takes to The Air

The highest-performing telemetry receiver on the market is now available in a compact, flight-ready package. Experience the industry’s fastest synchronization, best SOQPSK-TG detection, premier Best-Channel Selector and Adaptive Equalizer, and all the advantages of diversity combining – anywhere your test article takes you.

Key Features

  • Complete Receiver – RF to Bits — A single-box solution that accepts RF signals and delivers baseband clock and data. No external add-ons required.
  • Rugged, Space-Efficient Design — Ultra-compact 52 cubic-inch chassis affords flexibility with system integration.
  • Space Time Coding (STC) with SOQPSK Mode — Space-Time Coding (STC) operates with Quasonix STC-enabled transmitters to eliminate the dropouts caused by transmit antenna pattern nulls due to inter-antenna interference.
  • Low Density Parity Check (LDPC) with SOQPSK Mode — Low Density Parity Check coding operates with Quasonix LDPC-enabled transmitters to improve link margin by up to 9 dB, while still using 22% less bandwidth than PCM/FM at the same payload data rate; fully integrated forward error correction system.
  • Data Quality Encapsulation (DQE)/Data Quality Metric (DQM) — Data Quality Encapsulation (DQE) is a process of bundling Data Quality Metric words with payload data, including a sync word to aid BSS time alignment; built-in real-time DQM display via the browser interface.
  • Best-Channel Selector (BCS) — Combiner data output seamlessly selects the best channel (Ch1, Ch2, or Pre-Detection Diversity Combiner) based on DQM.
  • Pre-Detection Multi-Mode Diversity Combiner — Provides Maximal Ratio Combining with gain virtually indistinguishable from theory. Also features a revolutionary dynamic time alignment function which increases the allowable time skew between channels by over 1300 nanoseconds.
  • Built-in Integrated Three-channel Spectrum Analyzer — Spectrum analyzer shows frequency domain view for up to three channels simultaneously, via the browser interface.
  • Modulation Index Tracking* for PCM/FM — Maintains superior BER performance even if the received signal’s modulation index varies by as much as 500%, a breakthrough for tracking legacy analog transmitters (*patented).
  • Phase Noise Compensation — Optimizes demodulator performance for use with legacy TM packs and transmitters with excessive phase noise.
  • Best SOQPSK-TG Detection in the Industry — RDMS’ trellis detection for SOQPSK-TG yields improvements of 2 dB or more over the competition’s single-symbol detectors.
  • Easy Field Updates — Software and firmware updates – free for the lifetime of your receiver – can now be installed by the customer on site.
  • Future-Proofing Simplified — Upgrades such as new DSP and GUI features can be added with a simple file download while your receiver is still in the test article.
  • True Trellis Demodulation in all ARTM Modes — Provides true multi-symbol trellis detection in all three ARTM modes for optimal demodulation.
  • 3.5 to 5 dB Improvement in PCM/FM Performance — Improves BER performance by 3.5 to 5 dB over the best single-symbol demodulators, to within 0.2 dB of the theoretical limit.
  • Lowest Noise Figure — Typical 3.5 dB noise figure bests all other ARTM receivers on the market, hands down.
  • Rapid Synchronization — Synchronizes up to 100 times faster – and maintains sync at lower signal-to-noise ratios – than any other ARTM demodulator.
  • Available with Adaptive Equalization — Powerful decision-directed equalizer mitigates multipath distortion; Reduces dropouts caused by multipath reflections.

Product Literature

Available Options

  • Powerful adaptive equalizer mitigates multipath distortion
  • Optional contiguous tuning from 200 MHz through 2500 MHz and 4400 MHz through 5250 MHz
  • Low Density Parity Check coding, included in all receivers with SOQPSK demodulation, operates with Quasonix LDPC-enabled transmitters to improve link margin by up to 9 dB, while still using 22% less bandwidth than PCM/FM at the same payload data rate
  • Space-Time Coding (STC), included in all rackmount receivers with SOQPSK demodulation, operates with Quasonix STC-enabled transmitters to eliminate the dropouts caused by transmit antenna pattern nulls due to inter-antenna interference
  • Viterbi decoder (k=7, R=1/2), Tier 0, Legacy
  • SAW IF filters (14)

Option Literature

Accessories

Accessory Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature

EVTM Airborne Encoder-Decoder Pinout AT2018.07.07

Connectors and their pin assignments for Quasonix EVTM airborne encoder-decoder pinout code AT.

encoder-decoder ethernet-via-telemetry networkingpinout-diagram drawing

EVTM Airborne Encoder-Decoder Pinout AR2018.07.07

Connectors and their pin assignments for Quasonix EVTM airborne encoder-decoder pinout code AR.

encoder-decoder ethernet-via-telemetry networkingpinout-diagram drawing

Compact Receiver Pinout C15_042018.07.07

Connectors and their pin assignments for Quasonix compact receiver pinout code C15_04.

compact-rdms-gen-3 receivers-demodulatorspinout-diagram drawing

Compact Receiver Pinout C15_002018.07.07

Connectors and their pin assignments for Quasonix compact receiver pinout code C15_00.

compact-rdms-gen-3 receivers-demodulatorspinout-diagram drawing

Compact Receiver Pinout C37_002018.07.07

Connectors and their pin assignments for Quasonix compact receiver pinout code C37_00.

compact-rdms-gen-3 receivers-demodulatorspinout-diagram drawing

Compact Receiver Pinout C37_042018.07.07

Connectors and their pin assignments for Quasonix compact receiver pinout code C37_04.

compact-rdms-gen-3 receivers-demodulatorspinout-diagram drawing

Compact Receiver Pinout A37_002018.07.07

Connectors and their pin assignments for Quasonix compact receiver pinout code A37_00.

compact-rdms-gen-3 receivers-demodulatorspinout-diagram drawing

Ethernet via Bidirectional Packet Based Telemetry – FDD vs. TDD – ITC Paper2023.10.24

“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

ethernet-via-telemetry networkingconference-paper telemetry

Data Quality Metric – How Accurate Does it Need to Be? – ITC Paper2023.10.24

“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

compact-rdms-gen-3 compact-receiver-combiner mlsc rackmount-rdms-gen-3 receiver-analyzer-gen-3 status-logger tmoip-processor receivers-demodulators networking test-equipmentconference-paper telemetry

Advances In Packet Based Bi-Directional Telemetry Solutions – ITC Paper2022.10.18

“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

ethernet-via-telemetry networkingconference-paper telemetry

Switched Telemetry System Standard for Bidirectional Telemetry Interoperability – ITC Paper2023.10.24

“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

ethernet-via-telemetry networkingconference-paper telemetry

Meaningful G/T Measurements – Made at Night – ITC Paper2023.09.28

“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

antennasconference-paper telemetry

Meaningful G/T Measurements – Made at Night – ITC Presentation2023.09.28

“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

antennasconference-paper telemetry

Transmitter Package 02BB Model (1 MB Download)2023.07.25

STEP (ISO 10303-21) 3D model of the Quasonix 02BB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

EVTM Node Controller Model (2 MB Download)2023.10.11

STEP (ISO 10303-21) 3D model of the Quasonix EVTM Node Controller.

node-controller ethernet-via-telemetry networkingstep-model drawing

RDMS™ Compact Receiver-Combiner Model (8 MB Download)2023.08.09

STEP (ISO 10303-21) 3D model of the Quasonix RDMS™ Compact Receiver-Combiner.

compact-rdms-gen-3 receivers-demodulatorsstep-model drawing

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – Assembly with Package 18xx – Model (1 MB Download)2023.11.02

STEP (ISO 10303-21) 3D model of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-34-HS-28V-SP, assembled with a Quasonix package 18xx 4″ x 3″ Dual TIMTER™ transmitter.

 

heat-sink accessoriesstep-model drawing

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – Model (<1 MB Download)2023.11.02

STEP (ISO 10303-21) 3D model of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-34-HS-28V-SP. Fits 4″ x 3″ Dual TIMTER™ transmitters.

 

heat-sink accessoriesstep-model drawing

Transmitter Package 04AT Model (<1 MB Download)2023.11.02

STEP (ISO 10303-21) 3D model of the Quasonix 04AT telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 02BB Model (1 MB Download)2023.11.02

STEP (ISO 10303-21) 3D model of the Quasonix 02BB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AT Drawing2023.11.02

Mechanical line drawing of the 04AT telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

PDF

RDMS™ Compact Receiver-Combiner Drawing2023.08.09

Mechanical line drawing of the Quasonix RDMS™ Compact Receiver-Combiner.

compact-receiver-combiner receivers-demodulatorsmechanical-drawing drawing

PDF

EVTM Node Controller Drawing2023.10.11

Mechanical line drawing of the Quasonix EVTM Node Controller.

node-controller ethernet-via-telemetry networkingmechanical-drawing drawing

PDF

EVTM Encoder/Decoder Drawing2016.08.03

Mechanical line drawing of the Quasonix EVTM Encoder/Decoder.

encoder-decoder ethernet-via-telemetry networkingmechanical-drawing drawing

PDF

ADAPT™ PD750 Auto-Deployable Antenna System Drawing2023.03.17

Mechanical line drawing of the ADAPT™ PD750 Auto-Deployable 12-foot (3.7-meter) HyperTrack™ Antenna.

hypertrack precision-drive antennasmechanical-drawing drawing

Transportable Antennas Slideshow2023.10.23

Quasonix antennas are going places, through innovative engineering that allows for greater size, mobility, and utility, while maintaining extended durability and jitter-free precision tracking. This slideshow gives you a taste of the ways we are responding to customers’ needs. You CAN take it with you.

antenna
ground station
HyperTrack
mobile
portable
QTrack
trailer

hypertrack precision-drive qtrack antennasproduct-demonstration literature
Transportable Antennas Slideshow

Quasonix antennas are going places, through innovative engineering that allows for greater size, mobility, and utility, while maintaining extended durability and jitter-free precision tracking. This slideshow gives you a taste of the ways we are responding to customers’ needs. You CAN take it with you.


Learn More

MLSC™ Datasheet2023.11.17

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

mlsc networkingdatasheet literature

ADAPT™ PD750 Datasheet2023.10.13

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

hypertrack antennasdatasheet literature

Quasonix Terms and Conditions of Sale2023.10.01

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

nonepolicy-document company

PDF

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – Drawing2023.11.02

Mechanical line drawing of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-34-HS-28V-SP. Fits 4″ x 3″ Dual TIMTER™ transmitters.

dual-timter nanotx timter transmittersmechanical-drawing drawing

QSight™ Boresight Manual2023.08.221.0

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

qsight-boresight test-equipmentproduct-user-manual manuals

Transmitter Package 01PJ Drawing2023.06.19timter transmittersmechanical-drawing drawing
Conference Literature

Featured Catalogs

Featured Datasheets

For More Information

Transmitter Standard Letter of Volatility2023.09.21

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

transmittersletter-of-volatility literature
Networking

TMoIP Processor Manual2023.04.281.0.3

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

tmoip-processor networkingproduct-user-manual manuals
TMoIP Processor

Quasonix TMoIP Processor (TMOIP-12)

Reliable, simple, and accurate packetized telemetry transport

The Quasonix TMoIP Processor is the ideal solution for distributing telemetry data across your network. It provides IRIG 218-20 compatible telemetry transport in both a bidirectional 12-channel 1U form factor (TMOIP-12) and a 3-channel integrated solution embedded in a 1U or 3U RDMS™ receiver (RDMS™ with the -IP2 option). The Quasonix TMoIP Processor comes with a rich, highly configurable, and easy-to-use interface, with features like automatic bit-rate and clock edge detection and a BER Test Mode with Generator and Analyzer. You can also count on lifetime software updates from Quasonix to keep your systems up to date with the latest IRIG standards.


Contact Sales

FeaturesOptionsAccessoriesOperation

Key Features

PCM Telemetry Interface

  • Available as a stand-alone unit or integrated into Quasonix RDMS™ Receivers
    • Stand Alone: 6 or 12 Channels of PCM input/output (field upgradeable from 6 to 12)
    • RDMS™ Integrated (-IP2 option): 3 channels of PCM input, one each for Channel 1, Channel 2, and
      Combiner (factory upgrade for existing third-generation RDMS™ receivers)
  • PCM telemetry clock and data rates of 100 kbps to 50 Mbps per channel: Each channel supports an independent clock rate; bit rate detected automatically—no configuration needed
  • Bidirectional: To provide maximum flexibility, each channel can serve as a PCM input or output (TMOIP-12 only)
  • Electrical interface via TTL or RS-422: Clock and data for each channel can be configured for TTL via 75 ohm BNC, or for RS-422 via MDM-25 connectors (TMOIP-12 only)
  • Configurable TX/RX clock and data polarity with auto clock edge detection: Clocking edge can be automatically determined via relationship with data (most reliable edge is selected)

Network Interface

  • Two 1000 Base-T Gigabit Ethernet RJ45 ports: Separate ports for configuration and data
  • IRIG 218-20 packet format: Support for the latest standard with first bit timestamping
  • Time Synchronization: Via Network Time Protocol (NTP) or Precision Time Protocol (PTP) IEEE-1588/PTPv2
  • Per-channel configuration: Each channel is independently configurable for maximum flexibility
  • Configurable DQE frame alignment: TMoIP packet starts with a DQE frame and contains its full payload

User Interface

  • Local and remote management for configuration and monitoring: Front-panel LCD and LEDs for health and status (TMOIP-12 only); web browser based UI for command, control, health, and status
  • BER test mode with generator and analyzer: Allows full testing of system configuration and cabling prior to mission start
  • Easy field updates: Software updates may be installed by the customer on-site

Product Literature

Type Title Version File Size Updated Length Description

TMoIP Processor Datasheet 2023.10.12 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.

Available Options

The 1U TMOIP-12 is full-featured out of the box and has no additional options.

 

Option Datasheets and Guides

Type Title Version File Size Updated Length Description

Accessories

Image Item Description

Accessory Literature

Type Title Version File Size Updated Length Description

User Manuals and Guides

Type Title Version File Size Updated Length Description

TMoIP Processor Manual 1.0.3 2023.04.28 Instructions for operating the 1U QSX-TMOIP-12CH, the RDMS IP2 option, and the Quasonix TMoIP Processor (QTP).

Software Downloads

Type Title Version File Size Updated Length Description

Quasonix Product Lines

other-product-information literature

TMoIP Processor Drawing2022.08.24

Mechanical line drawing of the Quasonix 1U TMoIP Processor.

tmoip-processor networkingmechanical-drawing drawing

Transmitter Package 02BB Drawing2023.01.24

Mechanical line drawing of the 02BB telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

RDMS™ Receiver Scripting Guide2023.01.251.0

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

boot
command
execute
modes
operation
recording
script
scripting

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

HyperTrack™ Software Manual2022.12.151.0

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

hypertrack antennasproduct-user-manual manuals

RDMS™ Adaptive Equalizer Demonstration – SOQPSK2022.12.09

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming an SOQPSK signal with severe three-ray multipath distortion into nearly perfect data.

Adaptive equalizer
Data quality
Demonstration
Gen3
IF port
Multipath distortion
RDMS™
receiver
third generation
signal quality
spectrum
Three-ray

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-demonstration literature

RDMS™ Adaptive Equalizer Demonstration – PCMFM2022.12.09

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming a PCMFM signal with severe three-ray multipath distortion into nearly perfect data.

Adaptive equalizer
Data quality
Demonstration
Eye pattern
Gen3
IF port
Multipath distortion
RDMS™
receiver
third generation
signal quality
spectrum
Three-ray

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-demonstration literature
RDMS™ Adaptive Equalizer Demonstration – SOQPSK

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming an SOQPSK signal with severe three-ray multipath distortion into nearly perfect data.


Learn More

RDMS™ Adaptive Equalizer Demonstration – PCMFM

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming a PCMFM signal with severe three-ray multipath distortion into nearly perfect data.


Learn More

Transmitter Pinout R22022.10.11

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code R2.

nanotx transmitterspinout-diagram drawing

QTrack™ Antenna Manual (Draft)2022.10.17Preliminary 0.15

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

qtrack antennasproduct-user-manual manuals
New at ITC 2022 – Don’t Miss Out!

News from the company that’s…

Reinventing Telemetry™

October, 2022

In this issue:

See what’s new at ITC!

quasonix-itc-2022-newsletter-graphic-600x300

It’s not just a tagline. We really are… Reinventing Telemetry™, with complete telemetry link solutions to fit your needs. Stop by Booth 700 for live demos of our latest advancements and newest product offerings! Here is just a taste of what awaits you.

QBeam™ Digital Beamformer

Get the most out of your antenna array, and solve problems you haven’t been able to – until now. 

The QBeam™ digital beamformer is an innovative technology that can automatically “point” receive antennas for best signal reception without physically moving any antenna element. No tracking signal or special arrangement of the antennas is needed – just mount them where they can see the target. This beamforming is accomplished using Digital Signal Processing modules that can accommodate up to 16 antenna inputs each and that can be cascaded to support larger antenna arrays.The QBeam™ system typically includes a set of Quasonix RF Downconverters, each of which can be co-located with an antenna element; one or more Quasonix Digital Signal Processor modules, the heart of the QBeam™ system; and a Quasonix demodulator or RDMS™. These advanced components maximize system sensitivity, dramatically reduce adjacent-channel/adjacent-band interference, reject multipath, maximize antenna gain, and reliably demodulate the received signal to bits.The QBeam™ DSP has enough horsepower for more than just beamforming. Optional advanced algorithms include high-precision real-time direction finding, which may have several applications, such as interference source identification, antenna platform positioning, and antenna array troubleshooting. 

TMoIP Processor

Reliable, simple, and accurate packetized telemetry transport in both a 1U form factor and as an upgrade for your existing RDMS™ receiver.

You’ve transmitted and received your telemetry data. Now how do you distribute it across your network?The easy answer is the new Quasonix TMoIP Processor (QTP), which provides IRIG 218-20 compatible telemetry transport in both a bidirectional 12-channel 1U form factor (TMOIP-12) and a 3-channel integrated solution embedded in a 1U or 3U RDMS™ receiver (RDMS™ with the -IP2 option). The 1U standalone processor supports 6 or 12 channels of PCM input/output (field upgradable from 6 to 12). The RDMS™ integrated solution supports 3 channels of PCM input, 1 each for Channel 1, Channel 2, and Combiner, and is a factory upgrade for third-generation Quasonix receivers.In addition to providing accurate, reliable transport of all received telemetry data streams from receivers to the range network, the Quasonix TMoIP Processor comes with a rich, highly configurable, and easy-to-use interface. With features like automatic bit-rate and clock edge detection and a BER Test Mode with Generator and Analyzer, you’ll have your system set up and running smoothly in next to no time.  You can also count on lifetime software updates from Quasonix to keep your systems up to date with the latest IRIG standards.Get the quality, dependability, and usability you’ve come to expect from us. The TMoIP Processor is just the latest reason to make Quasonix your end-to-end telemetry supplier.

QSight™ Boresight System

Set your mission up for success with this simple, complete boresight solution.

The QSight™ system is a multi-band, high-powered, boresight RF test source that allows an operator to verify that the receive range telemetry system is properly configured and operating as expected prior to a mission.The outdoor portion of the unit consists of a high-performance RF telemetry transmitter with a multi-band antenna packaged in a single radome enclosure. A companion two-axis positioner as well as a camera can be added to allow for convenient testing of multiple receive sites. The indoor portion of the system is a 2U, 19” rackmount unit that is controlled via an external web browser based GUI. A single cable connects the transmit assembly with the controller, ensuring easy setup and robust operation.QSight™ supports a wide variety of IRIG-106 modulations and coding options. It can source either internally generated PN test patterns at a user specified data rate or externally supplied customer data via traditional RS-422 or TMOIP input. The power level is calibrated with a maximum output of 10 Watts EIRP and is controllable over an 80 dB range. This range of adjustment provides appropriate power levels for both short and long-distance test links.In addition to flexible telemetry signal generation, the QSight™ system can also precisely control its output polarization to verify the RF operation of receive antenna systems. Polarization options include vertical, horizontal, or fixed-linear at any arbitrary angle, right-hand or left-hand circular, as well as a rotating linear polarization mode. These modes allow the operator to easily measure and verify the cross-polarization and axial ratio performance of the receive antenna system prior to live operation.Ensure success for your next mission. Learn more about QSight™ today.

And that’s not all!​

Since opening for business in 2002, Quasonix has been proud to be a pioneer in the industry, with multiple innovations that have been incorporated in IRIG 106. We continue to advance the state of the art, and would love to show you what’s new and improved, including:

  • HyperTrack™ Antennas
  • EVTM – TDD mode
  • Receiver Analyzer 3.0
  • And the rest of our broad range of transmitters, receivers, antennas, and test equipment.

We hope to see you at ITC this year! If that’s not possible, contact us at sales@quasonix.com for expert product information, guidance, and support.

qbeam-digital-beamformer qsight-boresight tmoip-processor antennas test-equipment networkingother-product-information literature

Network Assistant Datasheet2023.10.16

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

network-assistant networkingdatasheet literature

QSight™ Boresight Datasheet2024.03.25

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

qsight-boresight test-equipmentdatasheet literature

TMoIP Processor Datasheet2023.10.12

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

tmoip-processor networkingdatasheet literature

Receiver Analyzer Datasheet (Gen 3)2023.10.11

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

receiver-analyzer-gen-3 test-equipmentdatasheet literature

Rackmount Transmitter Platform Datasheet2023.10.12

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

rackmount-transmitter-platform transmittersdatasheet literature

QBeam™ Digital Beamformer Datasheet2023.10.12

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

qbeam-digital-beamformer antennasdatasheet literature

HyperTrack™ Antenna Datasheet2023.10.12

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

hypertrack precision-drive antennasdatasheet literature
Twenty Years of… Reinventing Telemetry™

News from the company that’s…

Reinventing Telemetry™

June, 2022

In this issue:

Twenty Years of…
Reinventing Telemetry™

Quasonix anniversary logo over shimmering gold background

Quasonix was founded in 2002 with the purpose of filling a void in the flight-test telemetry market for a company dedicated to the development and deployment of advanced telemetry products. Quasonix’s core tenet of exceeding customer expectations continues today with the development of products that push the envelope of spectral efficiency, power efficiency, size, packaging, and user-friendliness. Quasonix continually breaks new ground and stands apart as the market’s key innovator – elevating the performance of existing products, conceiving and developing new products to fill completely unmet needs, and advancing the industry as a whole through contributions to IRIG 106 standards.In 2018, Terry Hill – owner and president of Quasonix and inventor of the SOQPSK waveform – was recognized with the ITC Pioneer Award for his broad array of contributions to telemetry. As he said during his acceptance: “The award has my name on it, and I’m immensely grateful and honored, but I have to say, I need to share it. Yes, I’ve had some good ideas over the years, but without the team that I work with – that’s the engineering team, manufacturing, testing, the sales team – everyone who takes those ideas and turns them into real products – well, they would just be ideas.”As we celebrate our anniversary, we’re proud to look back on a few highlights from our Twenty Years Of… Reinventing Telemetry™.2002       Quasonix opens for business2004       First TIMTER transmitter ships2007       First RDMS™ receiver ships2013       LDPC Coding introduced2014       STC introduced,                First Receiver Analyzer ships2015       DQE/DQM introduced,                EVTM introduced,                LDPC Coding added to IRIG 106-15,                STC added to IRIG 106-152017       DQE/DQM added to IRIG 106-17,                First Status Logger ships2018       BCS introduced,                First QTrack™ antenna ships2019       All-digital antenna control protocol introduced2021       First HyperTrack™ system installed Though there may be laurels in our commemorative anniversary logo, we’ll never be satisfied resting on them. Here’s to our next twenty years of innovation and leadership, and to the ongoing contributions we will make for the flight-test telemetry community.

COMING SOON: Receiver Analyzer 3.0

Prepare to get more from your existing Receiver Analyzer with this free upgrade.

Quasonix’s Receiver Analyzer is your go-to tool for verifying your pre-flight receiver configuration. With a system-wide total of four signal sources and six channel path emulators, complex scenarios can be effectively modeled and tested, allowing you to “measure twice, launch once”. The next generation of Receiver Analyzer is in development and will soon be available as a free upgrade. Version 3.0 unleashes even more of the hardware’s power and allows you far greater control in the setup of your testing. Here are just a few of the improvements you’ll see: 

  • Vastly improved performance, with nearly real-time response. Whether you describe the enhancement as “stunningly better” or a “night and day difference”, we’re sure you’re bound to notice.
  • A completely overhauled user interface that is highly configurable and flexible. Put what you want where you want it on the screen, optimizing the configuration for the tests you’re running.
  • User-customizable integrated graphics to quickly assess the data you care about directly in the UI, plus a results export for aggregation and further analysis offline.
  • The ability to extract DQM from DQE streams, enabling an array of new performance measurements and allowing for the calibration of DQM.
  • More modular, adaptable, and automatable configuration of your tests. If the hardware can generate it, you can access it, now with virtually unlimited combinations.

Here are two examples of the integrated graphics – in this case, related to the calibration of DQM:


Additional information will become available closer to launch. In the meantime, contact us at sales@quasonix.com if you’re interested in learning more.

Zen and the Art of Antenna Maintenance

Protect your sound investment and gain peace of mind through periodic inspections and routine maintenance of your system.

Quasonix’s HyperTrack™ systems are gaining in popularity with our customers, in no small part due to their unrivaled performance in tracking speed, tracking accuracy, and data retrieval.These cutting-edge systems combine the latest processing and network technologies with mechanical robustness descended from our proven legacy platform, with many systems in the field for over a decade and still performing flawlessly. Our confidence in this design is such that we now provide a new industry benchmark: a standard a three-year warranty on all our HyperTrack™ antenna systems. This is only possible by engineering and manufacturing to standards our competition would probably consider to be “overdesigned”.Environmental challenges abound. Here are the most significant ones that antennas face and principal risk mitigations employed by Quasonix:

  • Ultraviolet damage: The use of ultra-violet protective paint; UV resistant material coated cables; sun shields wherever possible
  • Precipitation and humidity: Positive pressurization of all outdoor equipment; the use of O rings (not gaskets); integrated dehydrating pressurizer for all outdoor equipment
  • Excessive wind and icing: Robust mechanical design; heaters and dehydrated positive pressure
  • Corrosion, mold, and mildew: Use of industrial and military grade materials and hardware

But even the best systems need a little love. Most of the breakdowns we see in field could have been detected and fixed before they went from “nothing to be concerned with” to expensive and problematic, resulting in antenna downtime.The solution is routine inspection.Things to look out for:

  • Paint peeling from weldments and radomes
  • Visible metal corrosion (on the weldments and hardware etc.)
  • Deterioration of cables and connectors including cracking and peeling 
  • Cracking, defoliation, and discoloration of composites (radomes and reflectors)
  • And most importantly: Dehydrator status alarms, or any signs of incorrect dehydrator operation

Three-year warranty:Quasonix is dedicated to protecting our customers and their investment.The three-year warranty on HyperTrack™ systems requires periodic inspection, which allows us to resolve issues before they become problems. Quasonix publishes a maintenance log/procedure with each HyperTrack™ system so that end users can protect the life of these systems.If these HyperTrack™ systems are periodically checked, we anticipate they will perform well for at least twenty years – probably more.

Quasonix 3U Rackmount Receiver

RDMS™ Release 19.3 Now Available

Update your receiver’s software today and start taking advantage of the latest features. It’s free and can be done via network connection or by SD card.

Here are a few of the improvements you’ll see in Release 19.3:

  • Software and firmware enhancements for the latest version of the RDMS Compact Receiver-Combiner (CRC)
  • Continued enhancement and bug fixes of the STRCI interface implementation of the RDMS API
  • Fix for issue introduced in R19.2 where an incorrect timestamp was applied when using a Status Logger

To receive release notes, update cards or packages, if you have any questions about this update, or if you have recommendations for future enhancements, please contact support@quasonix.com

Keep the feedback coming! Your suggestions continue to have a significant impact on our development plans.

Sneak Peek: PD900 Antenna

Quasonix PD900 Mobile Antenna
BOLO for lost antenna. Reward if found. Answers to “Big One”.
hypertrack precision-drive rackmount-rdms-gen-3 receiver-analyzer-gen-3 antennas receivers-demodulators test-equipmentother-product-information literature

RDMS™ Receiver Telnet and Serial Control Protocol Guide2022.12.121.0.5

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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

RDMS™ Compact Receiver-Combiner Manual (Gen 3, R19)2023.12.081.0.4

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

compact-receiver-combiner receivers-demodulatorsproduct-user-manual manuals

HyperTrack™ Antenna Periodic Maintenance Log2022.06.10

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

hypertrack antennasproduct-technical-guide manuals

RDMS™ Receiver Bit Error Rate Testing Guide2022.04.241.0.1

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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

Transmitter Package 06AN Model (<1 MB Download)2022.04.03

STEP (ISO 10303-21) 3D model of the Quasonix 06AN telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AN Drawing2022.04.04

Mechanical line drawing of the 06AN telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing
Protected: Form

This content is password protected. To view it please enter your password below:

Conference Papers
Telemetry Training

TM Smorgasbord

In this educational series, written and presented by Terry Hill, get a little taste of “all things telemetry.”

Day 1

This session covers performance metrics and continuous-phase modulation (Tier 0, Tier 1, and Tier II), then starts into the topic of demodulation, examining trellis vs. single-symbol.

Day 2

This session continues the subject of demodulation, covering the Data Quality Metric, diversity combining, and synchronization. It then moves on to channel impairments, with details on adaptive equalization as one impairment-mitigation technique.

Related videos (to view online):

Day 3

The training continues with a review of five more impairment-mitigation techniques – Best Source Selection, Best Channel Selection, Space-Time Coding (STC), Low-Density Parity-Check (LDPC) Coding, and auto-tracking antennas – then wraps up with a look at using all the tools together and a performance comparison and summary.

Related video (to view online):

Advanced Modulation Techniques for Telemetry

Short Course conducted at ITC in 2017 by Terry Hill.

Other Telemetry Training

Policies
Software and Firmware Downloads
Drawings, Models, and Diagrams

How to Search for a Specific Item

For Transmitter Package and Pinout Codes

Enter the transmitter’s package or pinout code in the search field.

Transmitter part numbers have several alphanumeric segments with dashes in between. The first segment is always QSX. If the second segment has four characters (e.g., QSX-VMR2-1100-10-16-04AB-BR1-PS8-VP-WV), then the pinout code is the fifth segment (16 in this example) and the package code is the sixth segment (04AB). If the second segment has three characters (e.g., QSX-VMR-110-10S-20-4D-BR1-PS8-VP-WV), then the package code is the sixth segment (4D) and the pinout is not included in the part number. To get the pinout code in that case, you will need to refer to documentation such as the quote or sales order, or contact support@quasonix.com.

For Other Products

Enter the part number in the text search box. As you do, the list of related files will be quickly filtered to match.

Transmitter Pinout NV2022.02.16

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code NV.

nanotx transmitterspinout-diagram drawing
Literature

Document Library

A Special Note About Rackmount Receivers

Rackmount units produced or updated from late 2016 to present have the manual specific to the receiver and its software version installed in the unit itself, accessible via the receiver’s web server. When feasible, this is the preferred method for finding information about your receiver. Just navigate to the HELP page in the remote client (bottom of the page). When that is not possible, you can use the archive below to find user manuals for compact receivers, compact receiver-combiners, and rackmount receivers by product generation and, for third-generation products, by system version.

The latest system software for Gen 3 receivers is Release 19.3. Quasonix recommends that you update to this version. Software/firmware updates can be added to your receiver on-site via SD card or Network Update. The same applies to certain feature upgrades such Adaptive Equalization and additional operating bands. Read this update guide to learn more about the process, or contact us at sales@quasonix.com regarding pricing of feature upgrades. Software/firmware updates are always free.

Receiver Manual Archive

Gen 3 Compact Receiver

Gen 3 Compact Receiver-Combiner

Gen 3 Rackmount Receiver

Gen 2 Compact Receiver

Gen 2 Rackmount Receiver

Transmitter SMA Replacement Guide2022.02.011.0

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

dual-timter timter transmittersproduct-technical-guide manuals

Maximal Ratio Combiner Simulation2020.04.23

Simulation of maximal-ratio diversity combining, showing how it phase aligns and coherently sums two signals but non-coherently sums their noise, resulting in up to 3 dB improvement in signal-to-noise ratio. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorstelemetry-training telemetry

PCMFM Adaptive Equalization (Training)2020.07.14

Original, received (three-ray), and equalized PCMFM signal. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorstelemetry-training telemetry

SOQPSK Adaptive Equalization (Training)2020.07.14

Original, received (three-ray), and equalized SOQPSK signal. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorstelemetry-training telemetry

QTrack™ Demonstration2020.12.19

Demonstration of the agility of a QTrack™ antenna as it auto-tracks a drone. Quasonix QTrack™ portable low-gain antennas, coupled with industry-leading Quasonix RDMS™ telemetry receivers, are the perfect solution for portable or mast-mounted antenna applications. Can your antenna do this?

Antenna
Auto-tracking
Camera
Drone perspective
Fly-by
Pirouette
Portable
QTrack
Video feed

qtrack antennasproduct-demonstration literature

Compact Receiver-Combiner (CRC) Lite – Demonstration2020.12.03

Distributed-antenna example with 5 RF patches, 5 CRC units, a NetAcquire A-CSS, and a rotating RF source. In addition to clock and data, the CRC units provide a real-time quality metric, allowing the BSS function to produce the optimum bit decisions as the RF source moves through space.

adaptive beam-forming
adaptive equalizer
advanced correlating source selector
ARTM
BERT
combiner
composite response
CRC
data quality metric
demonstration
diversity combiner
DQE
DQM
dual-channel receiver
error-free
LDPC
NetAcquire A-CSS
optimum bit decisions
patches
real-time
receiver
RF
STC
true trellis demodulation

compact-receiver-combiner receivers-demodulatorsproduct-demonstration literature

Custom Portable Antenna Enclosure2020.12.31

An example of a custom portable enclosure manufactured by Quasonix. Take a closer look inside this mobile, full-featured PD450 tracking system, which includes a retractable roof, hydraulic scissor lift, and interior control center.

acquisition aid
antenna control unit
conscan feed
control room
differential GPS
enclosure
HD surveillance camera
hydraulic scissor lift
mobile
PD450
RDMS rackmount receiver
retractable roof
tracking

precision-drive antennasproduct-demonstration literature

Trailered PD450 Drone-Tracking Demonstration2021.01.05

Using a 6-foot dish with a PD450 pedestal mounted to a trailer, we auto-track a drone, with near-perfect results. Filmed in California, this video highlights some of the key features of our antennas and the limitless potential of Quasonix’s full product line.

ACU
Antenna Control Unit
camera
drone
Ethernet
portable
RDMS
receiver
system
tracking
trailer
view-finder

precision-drive antennasproduct-demonstration literature

STC vs. Traditional Two-Antenna Solution2020.05.01

Recording from an early test flight showing how Space-Time Coding eliminates signal fades inherent in a normal two-antenna solution.

Fading
Self-interference
Signal
Space-Time Coding (STC)
Test flight
Two-antenna
Video

compact-receiver-combiner dual-timter rackmount-rdms-gen-3 receivers-demodulators transmittersproduct-demonstration telemetry-training literature telemetry
Delivered: Eleven HyperTrack™ Systems in Seven Months

News from the company that’s…

Reinventing Telemetry™

January, 2022

Delivered:
Eleven HyperTrack™ Systems
in Seven Months

2021 saw the Quasonix engineering team complete the architecture for the long-awaited HyperTrack™ system. We tested and fine-tuned the product in house, then commenced an aggressive effort to start building and installing the much-anticipated “next generation” of telemetry tracking antennas.

3D illustration. Color bytes of binary code flying through a vortex, background code depth of field and flares. Data transmission channel. Motion of digital data flow. Transferring of big data

In the second half of 2021, Quasonix committed to – and succeeded in delivering – at least one complete HyperTrack™ antenna system per month for five months. We overcame COVID-induced supply-chain disruptions to install and commission antennas with DoD customers, commercial US customers, and international customers.

The response has been extremely positive. In all cases, we have heard that HyperTrack™ not only exceeded their needs, but also their expectations.

Texas: tri-band aircraft tracker
Arizona: tri-band helicopter tracker
Yuma Proving Grounds: tri-band helicopter and missile tracker
Korea: dual-band aircraft tracker
Eglin Air Force Base: tri-band aircraft and missile tracker

What is HyperTrack™?

It’s not just one thing, or an incremental change. HyperTrack™ is a complete system that results in vastly superior telemetry antenna performance and usability.

The demands of telemetry engineers are not the same today as a decade ago. Faster targets, extreme dynamics, higher RF frequencies (with smaller beamwidths), and ever-encroaching sources of interference make clean data collection more challenging than ever. In particular, there’s a huge need for antenna tracking to be more accurate. Step one is a faster tracking loop – increasing the scan rate and reducing loop latency and variation.

HyperTrack™ addresses these challenges through improved hardware and software, covering the full telemetry frequency range (including C-Band and Tri-band). The bedrock of the system is the HyperTrack™ Antenna Controller (HTAC), where all real-time processing is done in FPGA hardware for faster response. This is where the “math magic” happens, dramatically improving tracking. HyperTrack™ also comprises a Feed Controller, which accommodates Conscan and SCM feeds; the HyperTrack™ Control Protocol, which delivers raw receiver data (including real-time signal strength and data quality) to the HTAC, with latency under 1.5 microseconds; and an ever-growing list of software features.

In addition to faster and more accurate tracking overall, the HyperTrack™ system improves rejection of interferers and incidental AM from target motion, and it improves tracking on intermittent downlinks (such as iNET and EVTM).

You want more than stellar performance? HyperTrack is designed to make your life easier. Here are just some of the highlights:

  • Completely Ethernet-based control and feedback
  • Dynamic, auto-adjusting tracking bandwidth
  • Auto setup for feed control – no need to tweak and tune
  • Expandable, modular design
  • New safety system, aligned with systems standardized in most manufacturing facilities
  • Standard assemblies, allowing easier maintenance and long-term part availability
  • Expanded system status feedback (module temp, humidity, pressure sensing, current draw, power supply health, and more)

And we won’t stop there. Every aspect of HyperTrack™ has been engineered to allow future enhancements with minimal impact to existing installations. Read on to learn how all of this is just the beginning for HyperTrack™ customers.

Why choose Quasonix?

If you want the best there is today, and a promise of support and future improvements, then HyperTrack™ is the system for you.

Our commitment to our HyperTrack™ customers goes beyond providing the best product possible – beyond hardware and software – to lifetime support. All HyperTrack™ systems come with the following:

A lifetime software warranty:
Quasonix provides free updates to our software. Our upgrades are backward compatible and allow all calibration data to be kept. As more features and capabilities become available, we provide them to our customers free of charge.

A three-year hardware warranty:
All Quasonix HyperTrack™ antenna systems come with a comprehensive three-year warranty. Provided that our customers certify that visual inspections and servicing have been maintained per our written instructions, any hardware issues are covered free of charge.

Lifetime user support:
All Quasonix HyperTrack™ antenna systems come with phone support for technical assistance. Our legendary customer service is provided via our technical support staff in Ohio and California and through our extensive representative network. In addition to being available by phone, we can be contacted via our support portal at support@quasonix.com.

In short, we’re here for you. No wonder demand for HyperTrack™ is so strong, and growing. Why not work with the company that’s… Reinventing Telemetry™.

Contact us today at sales@quasonix.com to learn more!

PDF

Compact Receiver Heat Sink Drawing2021.10.21

Mechanical line drawing of the Quasonix QSX-AC-RXHS compact/airborne receiver heat sink.

heat-sink accessoriesmechanical-drawing drawing

Transmitter Package 05AR Model (<1 MB Download)2022.10.20

STEP (ISO 10303-21) 3D model of the Quasonix 05AR telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AR Drawing2022.10.20

Mechanical line drawing of the 05AR telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Receiver Analyzer Standard Letter of Volatility2016.11.30

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

receiver-analyzer-gen-2 receiver-analyzer-gen-3 test-equipmentletter-of-volatility literature
Status Logger Steps it Up

News from the company that’s…

Reinventing Telemetry™

November, 2021

Status Logger Steps it Up

Quasonix’s RDMS™ Status Logger was already the industry’s only dedicated solution for recording and analyzing receiver/demodulator mission dynamics. An upcoming software update will take this powerful tool to a whole new level.

Status Logger R2

Quasonix is pleased to announce that a new era of Status Logger software is nearing release!

This version is being completely overhauled to improve capability and usability. Additionally, R2 will bring browser access to the Status Logger, to complement the browser access offered by the RDMS™. This will provide control, observation, and file management functions in a standard browser. Finally, API access to control and status will be introduced with a RESTful interface, to allow users to develop applications that communicate with the Status Logger.

This is a free upgrade that will be available for all existing Status Loggers and will soon ship on new units.

Contact sales@quasonix.com to learn more about this monumental step forward and to see screen captures of the new features in action.

RDMS™ Release 19.2 Available

Update your receiver’s software today and start taking advantage of the latest features. It’s free and can be done via network connection (for receivers with R15 or later already installed) or by SD card.

Here are a few of the improvements you’ll see in Release 19.2:

Added the Reed-Solomon decoder and associated controls for Legacy *PSK modulations.

Added FEC Menu:

  • Reed-Solomon controls are located here if available.
  • LDPC and Viterbi controls moved here to better group Forward Error Correction actions.

Substantially improved combiner gain at low SNR for PSK.

Enhanced the RDMS API:

  • Added support for multiple item queries in all branches.
  • Implemented PCM Frame Detection controls and status.
  • Improved responses for query and settings input errors.
  • Enhanced the STRCI interface implementation to further improve compliance with version 4.3 of the standard.
  • Added the FFC control for use with analog transmitters that exhibit disproportionate AC coupling.

Did you miss a release? No, R19 was limited in distribution to one customer. They needed Reed-Solomon functionality for a mission requirement earlier than this general availability release would allow. Therefore, R19 was created in order to provide that one deliverable to them. All of the functionality that was contained in R19 is included in R19.2.

To receive release notes, update cards or packages, if you have any questions about this update, or if you have recommendations for future enhancements, please contact support@quasonix.com. Keep the feedback coming. Your suggestions have a significant impact on our development plans.

RDMS™ Rackmount Receiver Manual (Gen 3, R19)2023.12.083.7.12

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals
Quasonix To Forgo ITC 2021

Quasonix is proud to be a leader in the telemetry industry. One powerful adjunct has been our support of the annual International Telemetering Conference, where we have been a sponsor for more than a decade and the lead sponsor three years running. The symposium has been an opportunity for us to share a long list of innovations at the core of our company’s mission: Reinventing Telemetry™.

This year brings a “first” of a very different sort: Quasonix will not be presenting at ITC.

In May and June, the United States had all the weapons needed to deliver a knockout blow against COVID-19. New cases were as low as they had been since the beginning of the pandemic and trending down. Unfortunately, vaccination rates have been too low and too slow, and COVID cases are now rising dramatically, driven by the Delta variant:

coronavirus-cases-august-2021-994x634

We see at least three reasons not to participate in the upcoming conference:

  1. First and foremost, the nationwide surge of the Delta variant is an elevated risk for our would-be ITC team. We would only send vaccinated personnel, but they could still carry the virus home to unvaccinated friends, families, and other contacts. This would be irresponsible.
  2. Las Vegas has been singled out as a Delta hotspot, virtually eliminating international attendance.
  3. We expect the risks – real and perceived – to drive overall ITC attendance lower. This reduces the value of the conference for everyone.

In short, while we regret the circumstances, we strongly believe the best course of action is to opt for safety. We will continue to provide our best-in-class sales support and training through contactless means.

To learn more about our any of our products, including our game-changing HyperTrack™ antenna systems, contact us at sales@quasonix.com.

We will certainly miss seeing our friends, customers, and colleagues this year, but we’re looking forward to seeing everyone again next year in Glendale. Stay safe!

RDMS™ Status Logger Drawing2021.05.18

Mechanical line drawing of the Quasonix 1U RDMS™ Status Logger.

status-logger test-equipmentmechanical-drawing drawing

RDMS™ Status Logger Model (6 MB Download)2021.05.18

STEP (ISO 10303-21) 3D model of the Quasonix 1U RDMS™ Status Logger.

status-logger test-equipmentstep-model drawing

HyperTrack™ Antenna Local Control Pendant Manual2021.08.172.0.1

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

hypertrack antennasproduct-user-manual manuals
Data Quality Magic

News from the company that’s…

Reinventing Telemetry™

April, 2021

Would you like to improve your telemetry link? How about your post-mission analysis? Or maybe you’d like to reduce the time, cost, and frustration of troubleshooting the link in the first place? If any of those are true, then Data Quality is your new best friend.

デジタルトランスフォーメーション AI・人工

The Data Quality Metric is a measure of received signal quality. More specifically, it is an estimate of bit error probability (BEP). Quasonix RDMS™ displays a streamlined version of DQM known simply as “Q,” which ranges from zero to ten. A zero means there is no confidence that the bits have been received correctly; a ten indicates that the probability of bit errors is less than one in ten billion – essentially perfect data.

What’s “magical” about DQM is that it works all the time – with any data, even encrypted, and any data modulation. This is because determining the error probability of any given bit is done without knowing what the bit is supposed to be. DQM is calibrated and verified against a wide variety of signal impairments, making it not only highly accurate but also interoperable among equipment vendors.

Because it reliably indicates the real-time likelihood of an error for every bit received, DQM enables several key benefits:

  • It is at the heart of the Best Channel Selector (BCS) built into our RDMS™.
  • End-to-end mission performance can be evaluated using a recording of DQM from the Status Logger with no knowledge of the received data.
  • DQM is a great diagnostic tool. For example, if you know the signal is clean (Q = 10) but your decomm still won’t sync, it’s very likely that your baseband encoding at the transmit end doesn’t match the decoding at the receiving end (randomizer, differential encoding, etc.).

To learn more about Data Quality and how it fits into troubleshooting your link setup, read our new guide, DQM and RDMS™ Troubleshooting.

A Better Two-Antenna Solution

Are you experiencing unexpected signal fades and data dropouts during testing? Your problem may be antenna self-interference. If so, Space-Time Coding (STC) can save the day.

Many aircraft use a single transmitter and split the output between a top and bottom antenna. Although this technique provides full RF spatial coverage, the two signals can constructively or destructively combine. This can result in deep signal fades of 20 dB or more.

STC was developed to transmit the same data in non-interfering streams. The signals are encoded so that they are orthogonal over the duration of a code block, meaning that the average net effect that they have on each other is zero. Both streams carry every data bit, so when only one transmit antenna is visible from the ground, no data is lost. Importantly, this coding wizardry happens with both streams at the same frequency, eliminating the need for two RF channel assignments, and it does so with almost no loss in power or bandwidth efficiency.

Implementing STC requires replacing the single-output transmitter and power splitter with an STC-capable model (with two RF outputs) and replacing the traditional receiver with one that is STC-capable. Benefits include simplified RF plumbing – which can easily save several dB of transmit losses that directly impact the communication link performance – and streamlined troubleshooting.

Is it worth it? Ask our customers. There are now more than 250 STC transmitters and over 1,000 STC-capable receivers in the field. They are used in every branch of the Department of Defense and by numerous commercial customers. And those who have started using STC equipment are coming back for more: So far, nearly 75% of first-time buyers of STC transmitters have made repeat purchases.

For additional details on STC, read our article in Aerospace Testing International or contact us at sales@quasonix.com.

SAVE on our Latest RDMS™ Features

Did you know that you can get a 15% discount by trading in an old Gen 2 receiver for a state-of-the art Gen 3?

Here are just a few reasons to upgrade to Gen 3:

  • Field upgradable via SD card or network connection, so you can easily take advantage of ongoing updates and innovations.
  • An improved Adaptive Equalizer, which uses decision-directed feedback to tackle harsh channels and provide cleaner results. The industry’s best weapon against multipath fading.
  • Support for the HyperTrack™ digital ACU interface as well as the legacy AM/AGC ACU interface.
  • Improved graphics, including much smoother constellation and eye pattern presentation, and a three-channel spectrum analyzer.
  • Test Utilities. Use the built-in Noise Generator and Data Generator for system testing and to verify transmitter or receiver RF integrity.
  • Extended Frequency Tuning, which allows for contiguous tuning from 200 MHz to 2500 MHz and from 4400 MHz to 5250 MHz, supporting applications that operate outside the normal telemetry bands.
  • A new Combiner IF Output, which facilitates recording of that signal on standard IF recorders.
  • An Enhanced RDMS™ API, giving you greater control, feedback, and flexibility.
  • Remote control available via standard web browsers.
  • All six IRIG variants of Low-Density Parity Check (LDPC) decoding and improved sync time vs Gen 2’s single 4K block rate 2/3 code variant.
  • Improved Space-Time Coding (STC). Gen 3 has both superior performance and UI status vs. Gen 2.
  • Data Quality Metric (DQM) / Data Quality Encapsulation (DQE), and the Best Channel Selector (BCS), with all the benefits outlined in the lead article above, and more.

Contact us today at sales@quasonix.com to order yours!

DQM and RDMS™ Troubleshooting Guide2021.03.28

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

TIMTER™ Dual Transmitter Manual, Firmware v22023.11.221.5.14

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

dual-timter transmittersproduct-user-manual manuals

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – Model (1 MB Download)2014.02.24

STEP (ISO 10303-21) 3D model of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-32-HS-28V-SP. Fits 2″ x 3″ TIMTER™ and Dual TIMTER™ transmitters.

 

dual-timter nanotx timter transmittersstep-model drawing

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – Exploded View – Drawing2014.02.24

Mechanical line drawing of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-32-HS-28V-SP, exploded view. Fits 2″ x 3″ TIMTER™ and Dual TIMTER™ transmitters.

dual-timter nanotx timter transmittersmechanical-drawing drawing

PDF

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – Drawing2023.11.02

Mechanical line drawing of the Quasonix Airborne IntelliCool™ transmitter heat sink, part number QSX-AC-32-HS-28V-SP. Fits 2″ x 3″ TIMTER™ and Dual TIMTER™ transmitters.

dual-timter nanotx timter transmittersmechanical-drawing drawing
Trailered PD450 Drone-Tracking Demonstration

Using a 6-foot dish with a PD450 pedestal mounted to a trailer, we auto-track a drone, with near-perfect results. Filmed in California, this video highlights some of the key features of our antennas and the limitless potential of Quasonix’s full product line.


Learn More

Custom Portable Antenna Enclosure

An example of a custom portable enclosure manufactured by Quasonix. Take a closer look inside this mobile, full-featured PD450 tracking system, which includes a retractable roof, hydraulic scissor lift, and interior control center.


Learn More

RDMS™ Rackmount Receiver Manual (Gen 3, R18)2020.11.103.6

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals
Compact Receiver Combiner (CRC) Lite – Demo

Distributed-antenna example with 5 RF patches, 5 CRC units, a NetAcquire A-CSS, and a rotating RF source. In addition to clock and data, the CRC units provide a real-time quality metric, allowing the BSS function to produce the optimum bit decisions as the RF source moves through space.


Learn More

COVID-19 Can’t Slow Us Down

News from the company that’s…

Reinventing Telemetry™

December, 2020

COVID-19 Can’t Slow Us Down

Despite a challenging year, we’ve kept staff safe, continued to deliver for our customers, and set the stage for future growth and innovation.

Man moving the Coronavirus COVID-19 out of the world. Positive concept of winning over corona virus. 3D illustration

2020 has been a difficult year for nearly everyone. At Quasonix, we’re proud that through determination and ingenuity, we have been able to continue business unabated. Our sales this calendar year are set to meet or even exceed prior-year sales, and, for the most part, deliveries have been on time.

To continue to provide the training and support we’re known for, we have ramped up “telesupport” using GoToMeeting and other teleconferencing tools. One especially noteworthy effort is the development of a “virtual ITC booth,” starting with a live, interactive, video-based demonstration of our Ethernet Via Telemetry (EVTM) products and capabilities. The team has done a fantastic job of setting this up so that the experience simulates an in-person demonstration and open discussion. So far, we’ve been doing these for one customer at a time. Although it takes more time on our part, we think the ability to tailor the presentation to the customer’s application makes it worthwhile. That said, we plan to produce generic demos to post to our website at some time in the future.

One other significant accomplishment this year has been doubling our antenna production capacity. Infrastructure for manufacturing and testing of auto-tracking antennas is now in place in both our Moorpark and West Chester facilities.

It’s clear that the months ahead will be challenging as well. We expect to continue to “rise above” but will notify customers immediately if there is any breakdown in the supply chain that affects our ability to deliver.

RDMS™ Software Update

Our third-generation RDMS™ has taken another leap forward with this software/firmware release, available immediately.

Here are a few of the improvements you’ll see in Release 18:

Enhanced AQPSK demodulation, including improved demodulator acquisition, tracking, and sensitivity performance across all bit rate and power ratios for AQPSK, AUQPSK, and UQPSK.

Added basic EVTM uplink controls for the integrated transmitter in receivers that have such option installed, improved the accessibility of settings, and added an RF Output indicator.

Improved System Information with expanded version info (to include more programming subsystems), more detailed hardware information, and reorganized and consolidated Front Panel and Browser Interface presentation of System Information.

Added ability to Auto-start updates that are performed using the Network Update functionality.

Enhanced the RDMS API, with more support for specific queries in all branches, EVTM integrated transmitter control and status, DQM output for all channels, BCS quality output as well as the Combiner quality output, ability to set the RDMS Alias, and ongoing enhancements to the STRCI interface implementation to improve compliance with version 4.2 of the standard.

Please note that the Release 15 update is a ‘gatekeeper’ release and must be performed via SD card prior to updating to Release 18. Once R15 has been installed, future updates can be performed via SD card or network connection.

To receive release notes, update cards or packages, if you have any questions about this update, or if you have recommendations for future enhancements, please contact support@quasonix.com. Keep the feedback coming. Your suggestions have a significant impact on our development plans.

STEP Models, Pinouts, and More

Did you know that you’ve got product models, drawings, user manuals, and more – right at your fingertips?

Over the past two years, we’ve added hundreds of files to our website to make it easier for you to find the information you need to do your job. This includes: 

  • STEP models and mechanical drawings for most of our transmitters and receivers
  • Transmitter pinout diagrams
  • Datasheets, catalogs, and other “pre-sale” literature
  • Operating manuals, technical guides, and downloadable software

These are all located at https://www.quasonix.com/resources/. The icons at the top of that page show the categories of information available. Just click on the relevant icon to go to that section, filter to find the file you want, and click on its link.

Most sections can be filtered categorically or by text search. The “STEP Models, Drawings, and Pinout Diagrams” section also includes instructions on searching for specific products.

As always, we’re happy to provide personal support for any issue you may have. But if you just need quick and easy access to reference information, the Resources page is there for you.

QTrack™ Demonstration

Demonstration of the agility of a QTrack™ antenna as it auto-tracks a drone. Quasonix QTrack™ portable low-gain antennas, coupled with industry-leading Quasonix RDMS™ telemetry receivers, are the perfect solution for portable or mast-mounted antenna applications. Can your antenna do this?


Learn More

Videos

Subscribe to the Quasonix Channel to view our top videos and be notified when we add more

Transmitter Package 08AS Drawing2020.10.21

Mechanical line drawing of the 08AS telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AM Drawing2020.10.08

Mechanical line drawing of the 04AM telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AL Drawing2020.10.08

Mechanical line drawing of the 04AL telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AK Drawing2020.10.08

Mechanical line drawing of the 04AK telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AJ Drawing2020.10.08

Mechanical line drawing of the 04AJ telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AS Model (<1 MB Download)2020.10.20

STEP (ISO 10303-21) 3D model of the Quasonix 08AS telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AM Model (<1 MB Download)2020.10.08

STEP (ISO 10303-21) 3D model of the Quasonix 04AM telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AL Model (<1 MB Download)2020.10.08

STEP (ISO 10303-21) 3D model of the Quasonix 04AL telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AK Model (<1 MB Download)2020.10.08

STEP (ISO 10303-21) 3D model of the Quasonix 04AK telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AJ Model (<1 MB Download)2020.10.08

STEP (ISO 10303-21) 3D model of the Quasonix 04AJ telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Pinout NL2020.08.07

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code NL.

nanotx transmitterspinout-diagram drawing

Transmitter Pinout S22020.07.14

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code S2.

timter transmitterspinout-diagram drawing

Transmitter Package 14AD Model (1 MB Download)2014.04.11

STEP (ISO 10303-21) 3D model of the Quasonix 14AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 14AC Model (3 MB Download)2016.11.11

STEP (ISO 10303-21) 3D model of the Quasonix 14AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 14AB Model (<1 MB Download)2014.04.18

STEP (ISO 10303-21) 3D model of the Quasonix 14AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 09AA Model (<1 MB Download)2013.12.12

STEP (ISO 10303-21) 3D model of the Quasonix 09AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AR Model (<1 MB Download)2016.06.03

STEP (ISO 10303-21) 3D model of the Quasonix 08AR telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AH Model (2 MB Download)2015.10.27

STEP (ISO 10303-21) 3D model of the Quasonix 08AH telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AG Model (<1 MB Download)2014.02.24

STEP (ISO 10303-21) 3D model of the Quasonix 08AG telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AF Model (<1 MB Download)2014.02.24

STEP (ISO 10303-21) 3D model of the Quasonix 08AF telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AE Model (<1 MB Download)2014.10.09

STEP (ISO 10303-21) 3D model of the Quasonix 08AE telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AD Model (3 MB Download)2013.10.25

STEP (ISO 10303-21) 3D model of the Quasonix 08AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AB Model (<1 MB Download)2013.12.12

STEP (ISO 10303-21) 3D model of the Quasonix 08AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 08AA Model (3 MB Download)2013.10.25

STEP (ISO 10303-21) 3D model of the Quasonix 08AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AJ Model (<1 MB Download)2014.09.29

STEP (ISO 10303-21) 3D model of the Quasonix 07AJ telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AG Model (<1 MB Download)2014.01.24

STEP (ISO 10303-21) 3D model of the Quasonix 07AG telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AF Model (<1 MB Download)2014.01.24

STEP (ISO 10303-21) 3D model of the Quasonix 07AF telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AE Model (<1 MB Download)2013.10.22

STEP (ISO 10303-21) 3D model of the Quasonix 07AE telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AC Model (<1 MB Download)2013.10.22

STEP (ISO 10303-21) 3D model of the Quasonix 07AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AB Model (<1 MB Download)2013.10.22

STEP (ISO 10303-21) 3D model of the Quasonix 07AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AA Model (<1 MB Download)2013.10.22

STEP (ISO 10303-21) 3D model of the Quasonix 07AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AG Model (2 MB Download)2014.03.07

STEP (ISO 10303-21) 3D model of the Quasonix 06AG telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AF Model (<1 MB Download)2013.10.18

STEP (ISO 10303-21) 3D model of the Quasonix 06AF telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AD Model (<1 MB Download)2013.10.18

STEP (ISO 10303-21) 3D model of the Quasonix 06AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AC Model (<1 MB Download)2013.10.18

STEP (ISO 10303-21) 3D model of the Quasonix 06AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AB Model (<1 MB Download)2013.10.18

STEP (ISO 10303-21) 3D model of the Quasonix 06AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 06AA Model (<1 MB Download)2013.10.18

STEP (ISO 10303-21) 3D model of the Quasonix 06AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AD Model (<1 MB Download)2013.10.07

STEP (ISO 10303-21) 3D model of the Quasonix 05AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AC Model (<1 MB Download)2013.10.07

STEP (ISO 10303-21) 3D model of the Quasonix 05AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AB Model (<1 MB Download)2013.10.07

STEP (ISO 10303-21) 3D model of the Quasonix 05AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AA Model (<1 MB Download)2013.10.07

STEP (ISO 10303-21) 3D model of the Quasonix 05AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AD Model (<1 MB Download)2013.09.24

STEP (ISO 10303-21) 3D model of the Quasonix 04AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AC Model (<1 MB Download)2013.09.24

STEP (ISO 10303-21) 3D model of the Quasonix 04AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AA Model (<1 MB Download)2013.09.20

STEP (ISO 10303-21) 3D model of the Quasonix 04AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 03AA Model (<1 MB Download)2022.11.15

STEP (ISO 10303-21) 3D model of the Quasonix 03AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 02AB Model (<1 MB Download)2013.12.09

STEP (ISO 10303-21) 3D model of the Quasonix 02AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 01PH Model (4 MB Download)2015.01.01

STEP (ISO 10303-21) 3D model of the Quasonix 01PH telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01PG Model (4 MB Download)2014.03.12

STEP (ISO 10303-21) 3D model of the Quasonix 01PG telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01PE Model (<1 MB Download)2013.12.12

STEP (ISO 10303-21) 3D model of the Quasonix 01PE telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01PD Model (2 MB Download)2013.12.12

STEP (ISO 10303-21) 3D model of the Quasonix 01PD telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01PB Model (2 MB Download)2013.12.12

STEP (ISO 10303-21) 3D model of the Quasonix 01PB telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01AD Model (<1 MB Download)2013.10.29

STEP (ISO 10303-21) 3D model of the Quasonix 01AD telemetry transmitter package (chassis) exterior.

nanotx transmittersstep-model drawing

Transmitter Package 01AC Model (2 MB Download)2013.10.29

STEP (ISO 10303-21) 3D model of the Quasonix 01AC telemetry transmitter package (chassis) exterior.

nanotx transmittersstep-model drawing

Transmitter Package 01AA Model (<1 MB Download)2013.09.19

STEP (ISO 10303-21) 3D model of the Quasonix 01AA telemetry transmitter package (chassis) exterior.

nanotx transmittersstep-model drawing

Compact Receiver 1 C&D Set With Ethernet Payload – Model (1 MB Download)2019.05.28

STEP (ISO 10303-21) 3D model of the Quasonix RDMS™ compact (airborne) receiver with 1 C&D set (MDM-15 male) and Ethernet payload (MDM-9 male).

compact-rdms-gen-3 receivers-demodulatorsstep-model drawing

Compact Receiver 3 C&D Sets – Model (2 MB Download)2019.05.28

STEP (ISO 10303-21) 3D model of the Quasonix RDMS™ compact (airborne) receiver with 3 C&D sets, MDM-37 male.

compact-rdms-gen-3 receivers-demodulatorsstep-model drawing

Compact Receiver 1 C&D Set – Model (< 1 MB Download)2019.05.28

STEP (ISO 10303-21) 3D model of the Quasonix RDMS™ compact (airborne) receiver with 1 C&D set, MDM-15 male.

compact-rdms-gen-3 receivers-demodulatorsstep-model drawing

EVTM Standard Letter of Volatility2020.06.20

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

encoder-decoder node-controller transceiver ethernet-via-telemetry networkingletter-of-volatility literature

J/F 12 Files (1 MB Download)2010.07.29

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

dual-timter nanopuck nanotx picotx timter transmittersother-product-information literature

EVTM Airborne Encoder-Decoder – Model (< 1 MB Download)2020.06.02

STEP (ISO 10303-21) 3D model of the Quasonix QSX-EVTM-SED-AT and QSX-EVTM-SED-AR chassis exterior.

encoder-decoder ethernet-via-telemetry networkingstep-model drawing

Transmitter Package 24AL Drawing2020.05.11

Mechanical line drawing of the 24AL telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 24AL Model (1 MB Download)2020.05.11

STEP (ISO 10303-21) 3D model of the Quasonix 24AL telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 24AG Drawing2020.05.11

Mechanical line drawing of the 24AG telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 24AG Model (1 MB Download)2020.05.11

STEP (ISO 10303-21) 3D model of the Quasonix 24AG telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Rackmount Receiver 1U – Drawing2020.04.02

Mechanical line drawing of the Quasonix RDMS™ 1U rackmount receiver exterior (chassis), including dimensions and back-panel connectors.

rackmount-rdms-gen-3 receivers-demodulatorsmechanical-drawing drawing

Rackmount Receiver 1U – Model (2 MB Download)2020.04.02

STEP (ISO 10303-21) 3D model of the Quasonix RDMS™ 1U rackmount receiver exterior (chassis).

rackmount-rdms-gen-3 receivers-demodulatorsstep-model drawing

EVTM 1U Rackmount 1-Channel Encoder-Decoder – Model (10 MB Download)2020.04.09

STEP (ISO 10303-21) 3D model of the Quasonix QSX-EVTM-1URX-1CH (chassis) exterior.

encoder-decoder ethernet-via-telemetry networkingstep-model drawing

RDMS™ Compact Receiver-Combiner Datasheet2023.12.11

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

compact-receiver-combiner receivers-demodulatorsdatasheet literature

Transmitter Package 05AH Model (< 1 MB Download)2019.12.01

STEP (ISO 10303-21) 3D model of the Quasonix 05AH telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AG Model (1 MB Download)2019.12.01

STEP (ISO 10303-21) 3D model of the Quasonix 05AG telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AF Model (< 1 MB Download)2019.11.30

STEP (ISO 10303-21) 3D model of the Quasonix 05AF telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AE Model (< 1 MB Download)2019.11.30

STEP (ISO 10303-21) 3D model of the Quasonix 05AE telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 05AH Drawing2019.12.01

Mechanical line drawing of the 05AH telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AG Drawing2019.12.01

Mechanical line drawing of the 05AG telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AF Drawing2019.11.30

Mechanical line drawing of the 05AF telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AE Drawing2019.11.30

Mechanical line drawing of the 05AE telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing
Quasonix’s Response to the Coronavirus Disease 2019 (COVID-19)

(Last updated April 7, 2020)

To all our customers, suppliers, employees, and contractors:

Quasonix remains dedicated to meeting the needs of our customers and ensuring the welfare of everyone we work with. Recognizing that the unprecedented global situation impacts every facet of our lives and our businesses, this status update is meant to share some insights, with the limited visibility we have today.

  • The safety and long-term well-being of our employees is our first priority, and we will take steps to achieve that even if it delays our deliveries. In adhering to guidance provided by the US Centers for Disease Control (CDC), we are encouraging anyone who can work from home to do so, and we are providing relevant information and reminding employees to take all reasonable precautions to avoid spreading infection, whether inside or outside the office.
  • Our labor force is currently at full strength, but the inefficiency of working in isolation (either working from home, or physically separated at the office) has begun to take its toll on our delivery schedules (details below).
  • We are taking steps to minimize delays. Quasonix keeps safety stock on long-lead items and high-use parts, which allows us to maintain relatively short lead times to our customers. Despite this, isolated shortages have begun to appear, and this will undoubtedly continue through the next several months. We are actively developing alternate sources for any item where inventory levels are falling or expected to do so.
  • Our production schedules are being monitored on a daily basis. The impact of personnel working in isolation and material shortages falls into roughly three groups:
    • Small products (items carried in one hand). Our small products, such as transmitters, are generally ushered through manufacturing and test by no more than two or three people. Working in isolation from each other has a minimal impact on our production throughput, so we can sustain our typical production schedule, so long as material continues to be available. We currently have 492 transmitters on order, of which 8 are late on delivery. The 72 units due in April are low risk, but the risk of late delivery rises in the summer months, as material inventory may dwindle.
    • Medium products (items carried in two hands). Receivers are a good example in this category. The manufacturing and test flow for these items involves 6 to 8 people, so working in isolation has significantly impacted our deliveries. We currently have 104 receivers, receiver analyzers, and status loggers on order, of which 21 are past due. Some of the 45 units due in April are at high risk and we are working with the customers for those units to arrange partial deliveries. If material holds up and our team stays healthy, we expect to be nearly back on schedule by mid-summer.
    • Large systems (items we ship by freight carriers). Antenna systems are a good example in this category. Assembling and testing these large systems requires 20 to 30 people, all of whom need material at several levels of sub-assembly. The combination of material shortages and the inefficiency of working in isolation conditions virtually assures that all these systems will be delivered late. Of the 29 antenna systems currently on order, 16 are due this year. Nearly all of those will be late, probably by 3 to 4 months. We are exploring every avenue to improve the delivery schedules, but we will not put our people at risk by pretending that a group of 20 or more people is somehow “isolated.” We apologize in advance for any inconvenience caused by these late deliveries, but human resources are irreplaceable.
  • We will continue to keep you informed. This report will be updated as there is additional information to share.

Best regards,

Terrance J. Hill, President

Quality Management System Documentation2024.03.295.9

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

nonepolicy-document company

SOQPSK ITC Paper2000.10.23

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor dual-timter nanopuck nanotx picotx rackmount-rdms-gen-2 rackmount-rdms-gen-3 receiver-analyzer-gen-3 timter receivers-demodulators transmitters test-equipmentconference-paper telemetry

Multi-Symbol Demodulator ITC Paper2000.10.23

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

ARTM Tier II Waveform ITC Paper2000.10.23

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor dual-timter nanopuck nanotx picotx rackmount-rdms-gen-2 rackmount-rdms-gen-3 timter receivers-demodulators transmittersconference-paper telemetry

Trellis Detection of SOQPSK ITC Paper2001.10.22

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

The Flexible Interoperable Transciever Data Link Standard ITC Presentation2001.10.22

“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

noneconference-paper telemetry

SOQPSK and Multi-h CPM in the Presence of Interference ITC Presentation2001.10.22

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor dual-timter nanopuck nanotx picotx rackmount-rdms-gen-2 rackmount-rdms-gen-3 timter receivers-demodulators transmittersconference-paper telemetry

SOQPSK and Multi-h CPM in the Presence of Interference ITC Paper2001.10.22

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor dual-timter nanopuck nanotx picotx rackmount-rdms-gen-2 rackmount-rdms-gen-3 timter receivers-demodulators transmittersconference-paper telemetry

SOQPSK and Multi-h CPM in a Multipath Channel ITC Paper2001.10.22

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor dual-timter nanopuck nanotx picotx rackmount-rdms-gen-2 rackmount-rdms-gen-3 timter receivers-demodulators transmittersconference-paper telemetry

Multi-Symbol Detection of PCM/FM ITC Paper2001.10.22

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

VHDL-Based, Multi-Mode ARTM Demodulator ITC Paper2002.10.21

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

Optimal Linear Detection of SOQPSK ITC Paper2002.10.21

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

Detection Efficiency
family
filter
Linear Receiver
SOQPSK
waveforms

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

Multi-Symbol Detector and Turbo Coding ITC Paper2002.10.21

“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

compact-rdms-gen-2 compact-rdms-gen-3 compact-receiver-combiner dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

Bandwidth and Power Efficiency Trade-Offs of SOQPSK ITC Paper2002.10.21

“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

noneconference-paper telemetry

Turbo Product Codes ITC Paper2003.10.20

“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

noneconference-paper telemetry

CMA Equalization ITC Paper2003.10.20

“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

noneconference-paper telemetry

SOQPSK with LDPC ITC Paper2013.10.21

“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)

compact-rdms-gen-3 compact-receiver-combiner dual-timter nanopuck nanotx rackmount-rdms-gen-3 timter receivers-demodulators transmittersconference-paper telemetry

Space-Time Coding ITC Paper2014.10.20

“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

compact-rdms-gen-3 compact-receiver-combiner dual-timter rackmount-rdms-gen-3 receivers-demodulators transmittersconference-paper telemetry

Data Quality Estimation ITC Paper2015.10.26

“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

noneconference-paper telemetry

Data Quality Encapsulation and Best Source Selection ITC Paper2017.10.23

“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)

noneconference-paper telemetry

Best-Channel Selection ITC Paper2018.11.05

“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)

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

Test Methods for Adaptive Equalizers ITC Paper2019.10.21

“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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

Effect of Rotating Propellers ITC Paper2019.10.21

“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

noneconference-paper telemetry

Best-Channel Selection Field Test Results ITC Paper2019.10.21

“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)

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry

All-Digital Antenna Control Protocol ITC Paper2019.10.21

“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)

hypertrack precision-drive antennasconference-paper telemetry

Airframe Reflections ITC Paper2019.10.21

“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

noneconference-paper telemetry

Ethernet Via Telemetry ITC Presentation2015.10.28

“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

encoder-decoder node-controller transceiver ethernet-via-telemetry networkingconference-paper telemetry

Ethernet Via Telemetry ITC Paper2015.10.28

“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

encoder-decoder node-controller transceiver ethernet-via-telemetry networkingconference-paper telemetry

Adaptively Equalized Waveforms ITC Paper2002.10.21

“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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsconference-paper telemetry
STC vs. Traditional Two-Antenna Solution


Recording from an early test flight showing how Space-Time Coding (left haystack) eliminates signal fades inherent in a normal two-antenna solution (right haystack). Quasonix offers a range of dual transmitters specially designed for STC. All third-generation Quasonix rackmount receivers are STC-capable, provided that ARTM Tier I demodulation (SOQPSK-TG) is optionally enabled.

[Note: This video is included in Day 3 of TM Smorgasbord training.]

Learn More

RDMS™ Rackmount Reciever Standard Letter of Volatility (Gen 2)2013.05.06

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

rackmount-rdms-gen-3 receivers-demodulatorsletter-of-volatility literature

RDMS™ Rackmount Reciever Standard Letter of Volatility (Gen 3)2015.04.30

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

rackmount-rdms-gen-3 receivers-demodulatorsletter-of-volatility literature

Transmitter Pinout 252019.07.25

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 25.

timter transmitterspinout-diagram drawing
A Diamond Sparkles in Vegas

For over a decade, Quasonix has been proud to sponsor the industry’s premier annual event – the International Telemetering Conference (ITC) – at the highest levels. And for the third year in a row, Quasonix was “all in” as the conference’s sole Diamond Sponsor at this year’s convention in Las Vegas.

It’s always a pleasure to meet and collaborate with customers, scientists, and future leaders in the field; to have a chance to discuss our products and the way they are reshaping telemetry; to do classroom training and technical presentations to help advance the state of the art. We hope you had a chance to participate.

Here are a few moments and memories from the show. If you’d like to learn more, please contact us at info@quasonix.com.

Quasonix Wins 5-Year Army Transmitter Contract

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FOR IMMEDIATE RELEASE

West Chester, OH – Quasonix has been awarded a $21.7 million contract for the delivery of telemetry transmitters over the next five years. The customized best-value solution consists of 37 different transmitter part numbers including single- and dual-RF configurations with power up to 10 watts. Many will include technology uniquely optimized by Quasonix that extends the range and reliability of their transmission, such as Low-Density Parity Check and Space-Time Coding.

The U.S. Army announced the firm-fixed price, indefinite delivery/indefinite quantity contract on Tuesday, October 29, 2019. The transmitters will be built, tested, and shipped from Quasonix headquarters located in West Chester, Ohio.

As noted by Terry Hill, President, “Quasonix has been a proud supplier to the U. S. Army almost since our inception, and this contract ensures that our long-standing relationship continues through 2024.”

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high-performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’s advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™, offering greater capabilities at lower cost.

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

RDMS™ Rackmount Receiver Manual (Gen 3, R17)2019.10.173.5.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals
Quasonix Wins Eglin Receiver Contract

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FOR IMMEDIATE RELEASE

West Chester, OH – Eglin Air Force Base has selected Quasonix based on performance and capabilities demonstrated in their third round of SEGR (Spectrum Efficient Ground Receiver) procurement. This year, testing was even more stringent than in the past. Only Quasonix met requirements in all categories and qualified as the “Best Value” to the Air Force.

Quasonix will be delivering 100 RDMS™ receivers with enhanced features such as Adaptive Equalization, STC, LDPC, DQM, DQE, and STRCI. This technology helps Quasonix receivers excel in edge cases – maintaining telemetry lock, minimizing dropouts, and ensuring better data quality in the most brutal range and testing dynamics.

“This award reaffirms that the RDMS™ is simply the head of the class in telemetry receivers. The US Air Force performed exhaustive testing on the sample units, and we have shown – again – that we outperform all the competition,” said Terry Hill, President of Quasonix.

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high-performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’s advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™, offering greater capabilities at lower cost.

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

Rollin’ rollin’ rollin’

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QUASONIX CONNECTION Volume 2, Issue 2

Quasonix is on the move – literally, as we head to Las Vegas for this year’s International Telemetering Conference, and figuratively as we continue to advance the state of the art in telemetry.

In this issue:

Come see us at ITC

Learn more about how Quasonix is… Reinventing Telemetry™

quasonix-itc-2019-1-768x140

Quasonix will once again be the lead sponsor of ITC, the world’s premier telemetry conference, held this year from October 21-24 at Bally’s Hotel and Convention Center in Las Vegas. 

As the only company in the industry offering complete RF telemetry link solutions, we’ve got plenty to show off. Here are just a few highlights from this year’s exhibits.

Beamforming Antenna Kit

How do you follow a moving target with a fixed antenna? The answer is beamforming with automated tracking.

While combining multiple antenna elements (four, in this case) increases signal strength, it also results in very directional array gain:

Without Beamforming, Gain (dB) vs. Angle (deg)

By altering phase alignment across elements, it’s possible to direct the primary lobe to a different angle. That’s beamforming. But how do you know where to direct the beam? Our solution is to use one dual-channel receiver to combine two of the elements, another dual-channel receiver to combine the other two elements, and a third receiver to combine the signals from the first two receivers, thereby automatically steering the beam and maximizing the signal level, which also maximizes data quality from the test article. The increase in off-axis gain (shown in the yellow area below) is substantial:

Beamforming Improvement, Gain (dB) vs. Angle (deg)

But don’t take our word for it. Come get all the details and see a live demo of automated tracking and the vast improvement in signal strength that’s possible with automatic beamforming.

Adaptive Equalization

In recent years, adaptive equalizers have begun to appear in receivers in an effort to combat multipath distortion. As it turns out, not all equalizers are created,… well… equal. Stop by for a demonstration of an automated adaptive equalizer test showing the effects of no equalization, ordinary equalization, and Quasonix equalization. Spoiler alert: there really is a difference.

While you’re there, get a sneak preview of the next generation of our Receiver Analyzer – which, among other upgrades, will be more flexible, allowing you to run configurations that aren’t possible today. (Due for release in 2020)

And Much More

We’ll also have interactive displays showing

  • Status Logger, including new features
  • RDMS™ Release 17 – stop by to get your update card!
  • RDMS™ Best Channel Selector
  • Space-Time Coding
  • Our full range of single and dual transmitters
  • Ethernet via Telemetry
  • Antennas and the Antenna Control Unit (ACU)

Come see us in booth 201!

We’ll have detailed information on all our products, and our most knowledgeable staff will be on hand to answer any questions you might have.

Quasonix wins Eglin contract for 100 receivers

Recognition of advanced features and highest value

If you were responsible for testing the world’s most complex and advanced fighter jets and missiles, what equipment would you use? Only the best!

In the Air Force’s 3rd year and 3rd round SEGR (Spectrum Efficient Ground Receiver) procurement, Eglin AFB refined their requirements and thoroughly tested receivers to a new and even more stringent level. Only one vendor met requirements in all categories and qualified as the “Best Value” to the Air Force.

That’s right – Quasonix RDMS™ receivers have been selected again. Another 100 units are lining up for production in Ohio with enhanced features such as Adaptive Equalization, STC, LDPC, DQM, DQE, and STRCI, all performing flawlessly in required modulations and at all data rates to 46Mbps. This array of new technologies helps Quasonix RDMS™ receivers perform like no other, excelling during edge cases – maintaining telemetry lock, minimizing dropouts, and ensuring better data quality in the most brutal range and testing dynamics, far beyond traditional telemetry receivers from even a few years ago. Quasonix truly is Reinventing Telemetry™.

Our sales growth, in pictures

Thirteen-thousand units can’t be wrong

3rd-Generation RDMS™ Release 17 available

New features and refinements, driven by our customers

Our third-generation RDMS™ takes another big step forward with this software/firmware release, available this Wednesday, October 16. Here are just some of the improvements you’ll see:

HyperTrack™
Enhanced antenna tracking capability with all-digital antenna control protocol, using existing AM outputs and cables (requires HyperTrack™-compatible ACU).

Enhanced Best-Channel Selector display
Added display of the Combiner’s Quality in addition to the Best Channel Selector’s Quality for better indication of signal environment.

Automatic Phase Noise Compensation (PNC)
When enabled, eliminates guesswork surrounding “Should I enable PNC?” Dynamically detects degenerate transmit signals (e.g., high phase noise), enables PNC to improve performance when needed, and disables PNC for maximum trellis demodulator performance when not needed.

Front Panel and Browser Interface include Bit Error Rate Tester (BERT)
Front Panel provides BERT setup controls. Browser Interface introduces a new expanded Test Utilities page (accessible from Configure) for BERT setup controls, as well as BERT status monitoring.

Improved Browser Interface
Better feedback of receiver operation, and enhanced Configure page functionality.

Enhanced RDMS™ API
Improved feedback, including indication that PUT is not processed if RDMS™ is busy when received, and device ready status indication; BERT controls, as well as status fields; receiver graphics available as bitmap download.

-CS1 Cyber-Security option
Support for customer generated certificates. Adds HSTS (HTTP Strict Transport Security) to instruct browser to use HTTPS.

And much more!

Please note that the Release 15 update is a ‘gatekeeper’ release and must be performed via SD card prior to update to Release 17. Once R15 has been installed, future updates can be performed via SD card or network connection.

To receive release notes, update cards or packages, if you have any questions about this update, or if you have suggestions for future enhancements, please contact support@quasonix.com. Keep the feedback coming, and we’ll keep making the best even better.

Moorpark facility receives ISO certification

Quasonix reaffirms its customer commitment

On September 18, 2019, Quasonix, Inc. announced receipt of ISO 9001:2015 certification for its Moorpark, CA facility, which is focused on antenna development and production. ISO 9001 is a quality management standard recognized around the world with the objective of improving product quality and customer focus through process improvement.

Terry Hill, president of Quasonix, stated that, “Quasonix has always used design, manufacturing, and test procedures that ensured our customers got the quality they expected and needed. The upgrade to ISO 9001:2015 at our Antenna Division increases customer focus and puts additional emphasis on sensitivity to the markets we serve. It tells our customers that we’re committed to attaining even higher levels of quality and performance.”

New website launched

Another investment in our customers

We have launched a re-design of the www.quasonix.com website. At first glance, you’ll notice a little more color and a little bit cleaner look. But the changes go much deeper.

One of our key goals in this upgrade has been to make it easier for customers to find the information they need. In the new site, you’ll see:

  • Additional content, both about our products and for product support
  • Some re-organization of the site’s content to make navigation easier
  • An improved site search function
  • Dedicated libraries for product information, transmitter drawings, and receiver manuals
  • Comprehensive contact information, including geographic filtering to connect with the sales support for your region

And while the old site was mobile responsive, the new site should look better and be more functional on any device.

We’re not about to rest on our laurels. This re-design lays the foundation for future improvements and new features. In the meantime, we hope you’ll enjoy the upgrades. If there’s anything we can do to make the website more useful to you, don’t hesitate to contact us – either through the site itself, or by writing to webmaster@quasonix.com.

Beamforming Antenna Kit Datasheet2021.02.04

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

qbeam-digital-beamformer antennasdatasheet literature
Terms of Service

Last updated Friday, October 11, 2019

1. Acceptance of Terms of Service

Quasonix, Inc. (“Company”) provides its online services and this web site (www.quasonix.com) (the “Web Site”) to you, the “User”, subject to this Terms of Service Agreement (this “TOS”). Company reserves the right to alter the TOS at any time without notice to User.  By using the Web Site, User agrees to abide by the terms of this TOS.

2. Online Services and Disclaimer of Warranty

The Web Site provides online resources including, but not limited to, online information regarding Company’s policies and practices; products (ranges, features, usage instructions, and physical characteristics); news (about the company and the telemetry industry); and support staff (including local sales representatives’ and distributors’ contact information) (collectively, the “Services”) . Any new services, resources or informational content added to the Web Site shall fall under the terms of this TOS. Company assumes no responsibility for any data loss or other loss suffered by any User of this Web Site. User is fully responsible for maintaining its computer equipment and Internet access to use the Web Site.

3. Registration

Certain areas of the Web Site are provided solely to registered Users of the Web Site. Any User registering for such services agrees to provide true and accurate information during the registration process. Company reserves the right to terminate the access of such Users should Company know, or have reasonable grounds to suspect, that a User has entered false or misleading information during the registration process. ALL REGISTERED USERS MUST BE OF LEGAL AGE TO REGISTER. Children under the age of 18 shall not be permitted to register unless under the strict supervision of a legal guardian. Company reserves the right to require valid credit card information as proof of legal age. Company maintains a strict online Privacy Policy and will not sell or give your information to other parties except as set forth in the Privacy Policy.

4. User Account

Users will select a username and password upon completing the registration process. Users are fully responsible for maintaining the confidentiality of their username and password. User agrees to immediately notify Company at info@quasonix.com should User know, or have reasonable grounds to suspect, that the username and password have been compromised. Company shall not be responsible for User’s failure to abide by this Paragraph.

5. Informational content supplied by Users

User understands that all information, computer files, software, graphics, sound files, and text, whether publicly displayed by User on the Web Site, or privately transmitted through the Web Site, are the responsibility of the User from which such informational content has originated. User is fully responsible for any and all informational content that user uploads, posts, e-mails, or transmits using the Web Site. Company does not and cannot control the informational content Users transmit through the Web Site. Under no circumstances shall Company be held liable for User’s exposure to informational content that User deems offensive, indecent or objectionable. Under no circumstances shall Company be held liable for any errors or omissions in any informational content transmitted by Users.

6. User conduct

User agrees to not use the Web Site to:

  1. upload, post, or transmit any informational content that is unlawful, threatens another person or entity, defamatory, vulgar, obscene, libelous, invades the privacy of another, or is otherwise objectionable;
  2. harm legal minors;
  3. collect personal information on, “cyberstalk” or harass another User, or engage in conduct that negatively affects the online experience of another User;
  4. impersonate another User, person, or entity, including any official or employee of Company;
  5. intentionally or unintentionally violate any local, state, or federal law, including violations of the Copyright Act;
  6. upload, post or transmit any software or files that contain software viruses or other harmful computer code;
  7. interfere with the operation of Company’s web servers or other computers or Internet or network connections;
  8. upload, post or transmit any informational content that is the copyrighted, patented or trademarked intellectual property of another, or the trade secret of or confidential information of another; or
  9. upload, post or transmit and unsolicited or unauthorized advertising, including “spam” or “junk mail.”

Company does not pre-screen uploaded, posted or transmitted content, but Company reserves the right to inspect, edit and delete any content that Company knows, or has reason to know, has violated this TOS. Company reserves the right to immediately, and without notice, terminate the account of any User found to have violated the provisions of this TOS. Company may disclose any informational content Users post, upload or transmit to the Web Site, if such disclosure is necessary to enforce this TOS, to respond to claims of intellectual property infringement, to comply with legal process, or to protect the rights of Company, the public, or other Users.

7. Content Submitted by Users

Company does not claim ownership of any informational content submitted by Users to the Web Site. User grants Company a non-exclusive, royalty-free license to use, distribute, reproduce, modify, and publicly display any informational content submitted to the Web Site. This license exists only so long as User allows its content to remain on the Web Site and will terminate in the event that User removes such content.

8. Indemnity

You agree to indemnify and hold Company, and its subsidiaries, affiliates, officers, agents, co-branders or other partners, and employees, harmless from any claim or demand, including reasonable attorneys’ fees, made by any third party due to or arising out of content you submit, post, transmit or make available through the Service, your use of the Service, your connection to the Service, your violation of the TOS, or your violation of any rights of another.

9. No resale

User agrees not to reproduce, copy, duplicate, or sell any portion of the Web Site.

10. Limits and modifications

Company may establish without notice limits on the use of the Web Site, including the maximum number of times Users may post to or participate in the online communities, or to the number of times Users may access the Web Site. Company reserves the right to modify any and all portions of the Web Site without notice. Under no circumstances shall Company be liable to User or any other party for such limits or modifications.

11. Termination of User account

Company may, at its sole discretion, terminate the User’s account for any reason. Under no circumstances shall Company be liable to User or any other party for such termination of User’s account.

12. Hyperlink policy

The Company site contains hyperlinks to other Internet sites not under the editorial control of Company. These hyperlinks are not express or implied endorsements or approvals by Company, of any products, services or information available from these sites.

13. Company’s Intellectual Property Rights

User agrees not to distribute, license, or create derivative works from any of Company’s copyrighted or trademarked material, including graphic files and software, available on the Web Site.

14. NO WARRANTIES

THE INFORMATION AND ANY DOWNLOADABLE SOFTWARE PROVIDED ON THIS WEB SITE IS PROVIDED “AS IS” AND ALL WARRANTIES, EXPRESS OR IMPLIED, ARE DISCLAIMED, INCLUDING, BUT NOT LIMITED TO, ANY IMPLIED WARRANTIES OF MERCHANTABILITY, MERCHANTABILITY OF ANY COMPUTER PROGRAM OR SOFTWARE, FITNESS FOR A PARTICULAR PURPOSE, ACCURACY OF INFORMATIONAL CONTENT, OR SYSTEM INTEGRATION, OR NON-INFRINGEMENT.

15. LIMITATION OF LIABILITY

COMPANY’S MAXIMUM LIABILITY FOR ANY INACCURATE INFORMATION OR SOFTWARE AND USER’S SOLE AND EXCLUSIVE REMEDY FOR ANY ACTIONS OR OMISSIONS BY COMPANY SHALL BE LIMITED TO THE AMOUNT PAID BY YOU FOR THE INFORMATION RECEIVED (IF ANY). COMPANY IS NOT LIABLE FOR ANY INDIRECT, SPECIAL, INCIDENTAL, LOSS OF BUSINESS, LOSS OF PROFITS OR CONSEQUENTIAL DAMAGES, WHETHER BASED ON BREACH OF CONTRACT, BREACH OF WARRANTY, TORT, NEGLIGENCE, PRODUCT LIABILITY OR OTHERWISE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. SOME JURISDICTIONS DO NOT ALLOW THE EXCLUSION OF CERTAIN WARRANTIES OR THE LIMITATION OR EXCLUSION OF LIABILITY FOR INCIDENTAL OR CONSEQUENTIAL DAMAGES. ACCORDINGLY, SOME OF THE LIMITATIONS OF THIS PARAGRAPH MAY NOT APPLY TO YOU.

16. Notice

Notices may be posted to the Web Site or e-mailed to Users using the e-mail address User submitted during the registration process.

17. General

This TOS, along with our Privacy Policy, Disclaimer, and Comment Policy, constitutes the entire agreement between you and Company and governs your use of the Web Site. This TOS shall be governed by the laws of the State of Ohio. User agrees to submit to the personal and exclusive jurisdiction of the courts located within the county of Hamilton in the State of Ohio. The failure of Company to exercise or enforce any right or provision of the TOS shall not constitute a waiver of such right or provision. If any provision of this TOS is found by a court of competent jurisdiction to be invalid, the parties nevertheless agree that the court should endeavor to give effect to the parties’ intentions as reflected in the provision, and the other provisions of the TOS remain in full force and effect. Any claim arising under the terms of this TOS must be brought within one (1) year after such claim or cause of action arose or be forever barred.

18. Violations

Please report any known or suspected violations of this TOS, including any suspected copyright or trademark violations, to info@quasonix.com.

Contact Us

If you have any questions about these Terms of Service, please contact us:

Quasonix, Inc.
6025 Schumacher Park Drive
West Chester, OH 45069
UNITED STATES

Contact phone: +1 (866) 787-6649

Contact email: info@quasonix.com

Website contact form: www.quasonix.com/contact

QTrack™ Antenna Tripod


Moog Gibraltar tripod (model 4-60450-0A, available from Quasonix as part number QC-ACC-001)

Capable of supporting 400 pounds, this Quickset Gibraltar tripod is a great way to ensure portable stability for your QTrack™ antenna.

Quickset tripods are built for the challenging demands of industrial and military users, purpose-built for increasingly heavy and precise instrumentation, use in hostile situations, and minimizing maintenance. Backed by over 75 years of experience in the design and manufacturing of tripod support and positioning systems, they are known for their unsurpassed reliability and performance. (Mfr model number 4-60450-0A)

Part number: QSX-AC-TRIPOD


Contact Sales

tripod accessoriesother-product-information literature

Receiver and Transmitter Low-Density Parity Check Guide2024.01.261.1.1

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

compact-rdms-gen-3 dual-timter nanotx rackmount-rdms-gen-3 receiver-analyzer-gen-2 timter receivers-demodulators transmitters test-equipmentproduct-technical-guide manuals
EVTM Encoder-Decoders

Quasonix compact (airborne) Ethernet-Via-Telemetry (EVTM) encoder-decoder

Redefine the “Local” in Local Area Network

With the Quasonix Ethernet Via Telemetry (EVTM) system, your test article can be on your ground station LAN, just like any other computer or Ethernet appliance. With an Ethernet switch in your test article, you can connect cameras, Voice over IP, computers, and more to your network on the ground.

This is one long-distance relationship that works. It starts with rigorous encoding of your IP packets into serial streaming telemetry with an airborne encoder-decoder, then decoding the serial stream back to IP on the receiving end with a ground-based encoder-decoder. For bi-directional communication, the process is repeated from ground to airborne using the same units.

Quasonix offers two hardware solutions. The first is a simple encoder-decoder, available in compact (airborne) and rackmount forms. The second is a new node controller that can be configured much like a router, allowing for sophisticated control of the system.


Contact Sales

Key Features

  • High Speed Ethernet Traffic Over Telemetry Links
    Ethernet telemetry data rates up to 40 Mbps using standard Ethernet protocols.
  • Enables Ethernet Data Transmission for a Wide Variety of Applications
    Multimedia streaming, data source selection, data source isolation and forwarding, source rate and coding
    control in reaction to channel impairments, network extension, Voice over IP (VoIP), COTS based Ethernet
    products such as Industrial Control Sensor Devices and data recorders
  • Supports all TCP/IP Packet Types
    Streaming UDP packets, TCP connections, ICMP and SNMP messages are all passed over the air.
    Connection-oriented traffic requires a bidirectional link.

Advantages

  • Time Division Duplex (TDD) or Frequency Division Duplex (FDD) Operation
    TDD synchronizes from GPS clock standard, or Master Slave mode. TDD switching modules can be added to existing FDD hardware.
  • Simple Interface 
    Packets appearing on the Quasonix transmitter’s Ethernet port are available at the receiver’s Ethernet port. To the end user, it’s like having an internet cable from the test article to the ground.
  • Optional COTS Devices Provide Tremendous Additional Capability
    An industrial computer module between the data sources and the transmitter allows sophisticated control of the downlink traffic. Ethernet enabled data recorders provide an interface for legacy sensors.

Possible Applications

  • Source Control/Selection
    Devices can be optionally enabled, disabled, and controlled either directly for Ethernet devices or via an Ethernet-enabled controller.
  • Encryption
    The same security and encryption protocols available on the Internet become available over the telemetry link.
  • Transmitter Power Cycling Controls
    For power-sensitive application, the ground controller can send messages to an air Ethernet-enabled controller to power the transmitter only when downlink data is required.
  • Network Extension
    Isolated networks can be bridged over any terrain.
  • Diagnostics and Health Monitoring
    • The same status and error messages that maintain the Internet are available for monitoring and administration of the telemetry network.
    • The Ground controller can monitor for transmitted network messages indicating link and link loss.
    • For low-security operations, GPS location data can be easily inserted into the downlink network traffic.
    • Alarm, fault, and status messages can be multiplexed into the downlink stream using standard protocols (such as ICMP).
  • Data Isolation and Forwarding
    Source data can be partitioned by its network destination address permitting the ground station to forward traffic only to the appropriate destination.
  • Control of COTS Camera Parameters
    Video resolution, video compression, and camera direction can be controlled remotely via the Ethernet uplink.

Product Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature
EVTM Transceivers

Quasonix compact (airborne) Ethernet-Via-Telemetry (EVTM) transceiver

Rethink Wireless Fidelity

Quasonix transceivers are an essential component of our Ethernet Via Telemetry (EVTM) system, allowing for unidirectional and bi-directional transmission and demodulation of encoded Ethernet data.

Our transceivers incorporate the same industry-leading transmitters and receivers Quasonix is known for. While nominal hardware and software additions are necessary for EVTM, you know you’re getting the quality and stability you’ve come to expect from Quasonix.

In fact, it’s not necessary to have the modulation and demodulation functions combined in one unit. An alternative is to use stand-alone transmitters and receivers that are additionally equipped for EVTM, giving you the flexibility to deploy those units in traditional telemetry roles as well.


Contact Sales

Key Features

  • Simplicity and Familiarity
    Built on proven TIMTER™ transmitter and RDMS™ receiver hardware, these units will be easy to set up and operate for years to come.
  • Flexibility
    Every Quasonix Ethernet-enabled transmitter or receiver can be used for processing encoded IP data or serial streaming telemetry data.

So Much More

If you’re not already familiar with Quasonix’s transmitters and receivers, learn more here:

Product Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature
Test Equipment
Antennas
Receivers
Transmitters
Policies and Notices

Corporate

Website

ISO 9001 Upgrade at Moorpark Reaffirms Customer Commitment

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FOR IMMEDIATE RELEASE

Moorpark, CA – Quasonix, Inc. announced receipt of ISO 9001:2015 certification for its Moorpark facility. ISO 9001 is a quality management standard recognized around the world with the objective of improving product quality and customer focus through process improvement.

Terry Hill, president of Quasonix, stated that: “Quasonix has always used design, manufacturing, and test procedures that ensured our customers got the quality they expected and needed. The upgrade to ISO 9001:2015 at our Antenna Division increases customer focus and puts additional emphasis on sensitivity to the markets we serve. It tells our customers that we’re committed to attaining even higher levels of quality and performance.”

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’ advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™, offering greater capabilities at lower cost.

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

Ethernet Via Telemetry (EVTM)

Redefine the “Local” in Local Area Network. With the Quasonix Ethernet Via Telemetry (EVTM) system, your test article can be on your ground station LAN, just like any other computer or Ethernet appliance.

ISO 9001:2015 Certificate (Moorpark)2023.10.21

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

nonepolicy-document company

Transmitter Pinout 612019.08.01

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 61.

timter transmitterspinout-diagram drawing

Transmitter Package 24AJ Model (1 MB Download)2019.08.27

STEP (ISO 10303-21) 3D model of the Quasonix 24AJ telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 24AJ Drawing2019.08.27

Mechanical line drawing of the 24AJ telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Limited Warranty2017.05.02

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

nonepolicy-document company
Disclaimer

Last updated Friday, October 11, 2019

Quasonix, Inc. owns and operates the https://www.quasonix.com website.

All intellectual property rights to content on this website are vested in Quasonix, Inc. Copying, disseminating, or any other use of these materials is not permitted without the written permission of Quasonix, Inc., except and only insofar as otherwise stipulated in regulations of mandatory law (such as the right to quote), unless specific content dictates otherwise.

Quasonix, Inc. is committed to keeping this website up to date and accurate. Should you nevertheless encounter anything that is incorrect or out of date, we would appreciate it if you could let us know. Please indicate where on the website you read the information. We will then look at this as soon as possible. Please send your response by email to info@quasonix.com. We are not liable for loss as a result of inaccuracies or incompleteness, nor for loss resulting from problems caused by or inherent to the dissemination of information through the internet, such as disruptions or interruptions.

In no event shall Quasonix, Inc. be liable for any special, direct, indirect, consequential, or incidental damages or any damages whatsoever, whether in an action of contract, negligence or other tort, arising out of or in connection with the use of the our website or its contents. Quasonix, Inc. reserves the right to make additions, deletions, or modification to the contents on this site at any time without prior notice. 

Quasonix, Inc. makes every reasonable effort to ensure security but does not warrant that the website is free of viruses or other harmful components.

If you have any questions or problems with the accessibility of the website, please do not hesitate to contact us.

Quasonix, Inc.
6025 Schumacher Park Drive
West Chester, OH 45069
UNITED STATES

Contact email: info@quasonix.com

Website contact form: www.quasonix.com/contact

Photo Credits

Unless otherwise noted on this page, all images on www.quasonix.com are property of Quasonix, Inc. ©2003-, all rights reserved.

Quasonix is grateful for the following images used on this site:

  • Photo used in the page hero for the Products page: U.S. Air Force / Tech. Sgt. Carlin Leslie (190228-F-QZ836-2500)
  • Photo used in the page hero for the Resources page: Courtesy of Bell Textron Inc., all rights reserved
  • Photo used in the page hero for the About Us page: U.S. Air Force / Staff Sgt. Ned T. Johnston (180228-F-ID984-001)
  • Photo used in the page hero for the Contact page: SpaceX, Creative Commons CC0 1.0 (public domain) (2013_-_11_vandenberg_sunset_rocket_on_pad)
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Transmitter Package 24AF Model (1 MB Download)2017.12.28

STEP (ISO 10303-21) 3D model of the Quasonix 24AF telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 24AE Model (1 MB Download)2018.07.11

STEP (ISO 10303-21) 3D model of the Quasonix 24AE telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 18AF Model (< 1 MB Download)2019.05.22

STEP (ISO 10303-21) 3D model of the Quasonix 18AF telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 18AD Model (< 1 MB Download)2017.07.20

STEP (ISO 10303-21) 3D model of the Quasonix 18AD telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 18AB Model (< 1 MB Download)2019.05.22

STEP (ISO 10303-21) 3D model of the Quasonix 18AB telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 09BD Model (< 1 MB Download)2018.02.02

STEP (ISO 10303-21) 3D model of the Quasonix 09BD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 09AK Model (< 1 MB Download)2017.08.18

STEP (ISO 10303-21) 3D model of the Quasonix 09AK telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 08AC Model (< 1 MB Download)2019.05.03

STEP (ISO 10303-21) 3D model of the Quasonix 08AC telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07BD Model (< 1 MB Download)2018.10.10

STEP (ISO 10303-21) 3D model of the Quasonix 07BD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 07AH Model (<1 MB Download)2017.04.14

STEP (ISO 10303-21) 3D model of the Quasonix 07AH telemetry transmitter package (chassis) exterior.

dual-timter transmittersstep-model drawing

Transmitter Package 06AE Model (< 1 MB Download)2017.05.30

STEP (ISO 10303-21) 3D model of the Quasonix 06AE telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 04AB Model (< 1 MB Download)2017.03.03

STEP (ISO 10303-21) 3D model of the Quasonix 04AB telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 02AA Model (< 1 MB Download)2017.04.03

STEP (ISO 10303-21) 3D model of the Quasonix 02AA telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 01EP Model (< 1 MB Download)2019.03.01

STEP (ISO 10303-21) 3D model of the Quasonix 01EP telemetry transmitter package (chassis) exterior.

nanopuck transmittersstep-model drawing

Transmitter Package 01AB Model (< 1 MB Download)2017.04.14

STEP (ISO 10303-21) 3D model of the Quasonix 01AB telemetry transmitter package (chassis) exterior.

nanotx transmittersstep-model drawing

Transmitter Package 24AE Drawing2017.11.09

Mechanical line drawing of the 24AE telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 24AA Drawing2017.10.31

Mechanical line drawing of the 24AA telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 18AG Drawing2019.05.20

Mechanical line drawing of the 18AG telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 18AF Drawing2018.07.10

Mechanical line drawing of the 18AF telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 18AD Drawing2016.10.24

Mechanical line drawing of the 18AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 18AC Drawing2016.12.28

Mechanical line drawing of the 18AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 18AB Drawing2016.05.11

Mechanical line drawing of the 18AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 17AB Drawing2014.01.08

Mechanical line drawing of the 17AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 14AD Drawing2014.04.25

Mechanical line drawing of the 14AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 14AC Drawing2015.02.20

Mechanical line drawing of the 14AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 14AB Drawing2014.04.25

Mechanical line drawing of the 14AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 14AF Drawing2016.01.11

Mechanical line drawing of the 14AF telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 09AP Drawing2017.05.22

Mechanical line drawing of the 09AP telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 09AK Drawing2018.07.10

Mechanical line drawing of the 09AK telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 09AA Drawing2013.12.12

Mechanical line drawing of the 09AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08FM Drawing2015.07.01

Mechanical line drawing of the 08FM telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AM Drawing2015.10.22

Mechanical line drawing of the 08AM telemetry transmitter package (chassis), including dimensions.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 08AJ Drawing2014.10.28

Mechanical line drawing of the 08AJ telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AH Drawing2014.08.05

Mechanical line drawing of the 08AH telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AG Drawing2014.02.24

Mechanical line drawing of the 08AG telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AF Drawing2014.02.24

Mechanical line drawing of the 08AF telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AE Drawing2014.10.09

Mechanical line drawing of the 08AE telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AD Drawing2013.10.25

Mechanical line drawing of the 08AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AC Drawing2014.02.21

Mechanical line drawing of the 08AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AB Drawing2014.02.21

Mechanical line drawing of the 08AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 08AA Drawing2014.02.21

Mechanical line drawing of the 08AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07BD Drawing2018.10.11

Mechanical line drawing of the 07BD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AN Drawing2016.05.02

Mechanical line drawing of the 07AN telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 07AM Drawing2015.11.09

Mechanical line drawing of the 07AM telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 07AL Drawing2015.11.09

Mechanical line drawing of the 07AL telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AK Drawing2015.10.22

Mechanical line drawing of the 07AK telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 07AJ Drawing2014.09.29

Mechanical line drawing of the 07AJ telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AH Drawing2016.03.07

Mechanical line drawing of the 07AH telemetry transmitter package (chassis), including dimensions and connector pin numbering.

dual-timter transmittersmechanical-drawing drawing

Transmitter Package 07AG Drawing2014.01.24

Mechanical line drawing of the 07AG telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AF Drawing2014.01.24

Mechanical line drawing of the 07AF telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AE Drawing2014.09.29

Mechanical line drawing of the 07AE telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AD Drawing2013.11.20

Mechanical line drawing of the 07AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AC Drawing2013.10.22

Mechanical line drawing of the 07AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AB Drawing2013.10.22

Mechanical line drawing of the 07AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 07AA Drawing2013.10.22

Mechanical line drawing of the 07AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AJ Drawing2017.07.17

Mechanical line drawing of the 06AJ telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AH Drawing2014.09.25

Mechanical line drawing of the 06AH telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AG Drawing2014.05.15

Mechanical line drawing of the 06AG telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AF Drawing2013.10.18

Mechanical line drawing of the 06AF telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AE Drawing2013.10.18

Mechanical line drawing of the 06AE telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AD Drawing2013.10.18

Mechanical line drawing of the 06AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AC Drawing2013.10.18

Mechanical line drawing of the 06AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AB Drawing2013.10.18

Mechanical line drawing of the 06AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 06AA Drawing2013.10.18

Mechanical line drawing of the 06AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AD Drawing2013.10.07

Mechanical line drawing of the 05AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AC Drawing2013.10.07

Mechanical line drawing of the 05AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AB Drawing2013.10.07

Mechanical line drawing of the 05AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 05AA Drawing2013.10.07

Mechanical line drawing of the 05AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AH Drawing2017.05.16

Mechanical line drawing of the 04AH telemetry transmitter package (chassis), including dimensions.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AD Drawing2014.07.24

Mechanical line drawing of the 04AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AC Drawing2014.07.24

Mechanical line drawing of the 04AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AB Drawing2014.07.24

Mechanical line drawing of the 04AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 04AA Drawing2014.07.24

Mechanical line drawing of the 04AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 03AB Drawing2016.04.13

Mechanical line drawing of the 03AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanotx transmittersmechanical-drawing drawing

Transmitter Package 03AA Drawing2022.11.15

Mechanical line drawing of the 03AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 02AB Drawing2013.12.19

Mechanical line drawing of the 02AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 02AA Drawing2013.12.19

Mechanical line drawing of the 02AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Package 01PH Drawing2015.01.01

Mechanical line drawing of the 01PH telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanopuck transmittersmechanical-drawing drawing

Transmitter Package 01PG Drawing2014.03.13

Mechanical line drawing of the 01PG telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanopuck transmittersmechanical-drawing drawing

Transmitter Package 01PE Drawing2016.01.07

Mechanical line drawing of the 01PE telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanopuck transmittersmechanical-drawing drawing

Transmitter Package 01PD Drawing2016.01.07

Mechanical line drawing of the 01PD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanopuck transmittersmechanical-drawing drawing

Transmitter Package 01PB Drawing2016.01.07

Mechanical line drawing of the 01PB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanopuck transmittersmechanical-drawing drawing

Transmitter Package 01AD Drawing2014.06.16

Mechanical line drawing of the 01AD telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanotx transmittersmechanical-drawing drawing

Transmitter Package 01AC Drawing2014.06.16

Mechanical line drawing of the 01AC telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanotx transmittersmechanical-drawing drawing

Transmitter Package 01AB Drawing2014.06.16

Mechanical line drawing of the 01AB telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanotx transmittersmechanical-drawing drawing

Transmitter Package 01AA Drawing2014.06.16

Mechanical line drawing of the 01AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

nanotx transmittersmechanical-drawing drawing

Transmitter Package 00AA Drawing2012.06.11

Mechanical line drawing of the 00AA telemetry transmitter, including dimensions.

picotx transmittersmechanical-drawing drawing

Transmitter Package 07AD Model (< 1 MB Download)2017.03.01

STEP (ISO 10303-21) 3D model of the Quasonix 07AD telemetry transmitter package (chassis) exterior.

timter transmittersstep-model drawing

Transmitter Package 21AA Drawing2014.01.08

Mechanical line drawing of the 21AA telemetry transmitter package (chassis), including dimensions and connector pin numbering.

timter transmittersmechanical-drawing drawing

Transmitter Pinout N62018.08.16

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N6.

nanopuck transmitterspinout-diagram drawing

Transmitter Pinout N42018.08.16

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N4.

nanopuck transmitterspinout-diagram drawing

Transmitter Pinout 032018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 03.

timter transmitterspinout-diagram drawing

Transmitter Pinout 042018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 04.

timter transmitterspinout-diagram drawing

Transmitter Pinout 052018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 05.

timter transmitterspinout-diagram drawing

Transmitter Pinout 062018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 06.

timter transmitterspinout-diagram drawing

Transmitter Pinout 072019.08.01

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 07.

timter transmitterspinout-diagram drawing

Transmitter Pinout 082018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 08.

timter transmitterspinout-diagram drawing

Transmitter Pinout 092018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 09.

timter transmitterspinout-diagram drawing

Transmitter Pinout 102018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 10.

timter transmitterspinout-diagram drawing

Transmitter Pinout 112018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 11.

timter transmitterspinout-diagram drawing

Transmitter Pinout 122018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 12.

timter transmitterspinout-diagram drawing

Transmitter Pinout 132018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 13.

timter transmitterspinout-diagram drawing

Transmitter Pinout 142018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 14.

timter transmitterspinout-diagram drawing

Transmitter Pinout 152018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 15.

timter transmitterspinout-diagram drawing

Transmitter Pinout 162018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 16.

timter transmitterspinout-diagram drawing

Transmitter Pinout 172018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 17.

timter transmitterspinout-diagram drawing

Transmitter Pinout 182018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 18.

timter transmitterspinout-diagram drawing

Transmitter Pinout 192018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 19.

timter transmitterspinout-diagram drawing

Transmitter Pinout 202018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 20.

timter transmitterspinout-diagram drawing

Transmitter Pinout 222018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 22.

timter transmitterspinout-diagram drawing

Transmitter Pinout 242018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 24.

timter transmitterspinout-diagram drawing

Transmitter Pinout 262018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 26.

timter transmitterspinout-diagram drawing
Receiver Analyzer

Quasonix receiver analyzer

Measure twice, launch once

Verify your pre-flight receiver configuration with the Quasonix Receiver Analyzer. With two complete ARTM signal generators covering 200 MHz to 2500 MHz and 4.4 GHz to 5.25 GHz contiguously and power levels from 0 dBm to –130 dBm, the Receiver Analyzer automates a wide range of receiver and combiner performance tests including bit error rate, noise figure, acquisition time and threshold, combiner break frequency, and PCM/FM modulation index tests. Eight bit error rate testers include integrated synchronization detection/timing and bit clock frequency counters.


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FeaturesOptionsAccessoriesOperation

Key Features

  • Versatile Rack-Mount Enclosure with USB Interface: Compact 1U 19” rack-mount chassis provides a single-box receiver analyzer solution, with USB plug and play; RA 3.0 extends capability and performance dramatically using existing fielded hardware
  • Internal Signal Generators: Includes two complete ARTM signal generators covering 200 MHz to 2500 MHz and 4.4 GHz to 5.25 GHz contiguously, with power levels from 0 dBm to –125 dBm
  • Multipath Channel Emulator: Provides 6-ray multipath emulation plus line-of-sight for static and dynamic multipath testing
  • Internal Bit Error Rate Testers (BERTs): Eight bit error rate testers with integrated synchronization detection/measurement and bit rate counters
  • Powerful User Interface Runs on any Windows PC: Easy to use, fully configurable graphical user interface provides incredibly responsive control of all Receiver Analyzer functions and monitoring of all receiver status; make the interface as simple or as full-featured as needed
  • Receiver Performance and Functionality Tests: Comprehensive telemetry receiver test suite includes DQE/DQM verification, bit error rate, noise figure, receiver latency, acquisition time, acquisition threshold, combiner/BSS break frequency, and PCM/FM modulation index tests
  • User-Definable Automated Tests: Fully customizable test capability allows modifying standard tests or defining new test scenarios to provide almost limitless automatic receiver testing
  • Dynamic Graphing and Logging of Automated Test Results: Automated tests display results in interactive charts, in real time, and allow saving acquired data in several formats including customizable .CSV files for post-test processing and analysis
  • DQM-Based Testing: Use calibrated DQM rather than bit error rate measurements to decrease test time by orders of magnitude

Product Literature

Type Title Version File Size Updated Length Description

Receiver Analyzer Datasheet (Gen 3) 2023.10.11 Features and specifications for the third-generation Quasonix Receiver Analyzer and its accompanying software user interface.

Receiver Analyzer Standard Letter of Volatility 2016.11.30 This document describes the memory and media present in Quasonix Receiver Analyzers.

Receiver and Transmitter Catalog 2022.11.28 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.

Available Options

The Receiver Analyzer is full-featured out of the box and has no additional options.

Option Literature

Type Title Version File Size Updated Length Description

Accessories

Image Item Description

Accessory Datasheets

Type Title Version File Size Updated Length Description

User Manuals and Guides

Type Title Version File Size Updated Length Description

Receiver and Transmitter Low-Density Parity Check Guide 1.1.1 2024.01.26 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.

Receiver Analyzer Manual (Gen 2) 2.5.9 2022.03.30 Installation and operation of the second-generation rackmount Quasonix Receiver Analyzer.

Receiver Analyzer 101 Training (Gen 2) 2015.07.23 Operation of Quasonix’s second-generation rackmount Receiver Analyzer, including setup, tests that can be run, and troubleshooting.

Software Downloads

Type Title Version File Size Updated Length Description

Quasonix Product Lines

other-product-information literature
RDMS™ Status Logger

Quasonix RDMS™ status logger

That which is measured, improves.
That which is measured and reported improves exponentially.

Need a powerful way to analyze receiver/demodulator mission dynamics? The Quasonix RDMS™ Status Logger is the solution. View metrics in a real-time graphics display and log status information to a file. 

With two configurations, the RDMS™ Status Logger is versatile AND easy to set up. The Compact Status Logger provides an interface between an available USB port on your PC and the 25 pin control port on the rear panel of an RDMS™ receiver. A 1U interface unit provides for up to four (4) RDMS™ connections simultaneously. What other tool can access the receiver status metrics, timestamp them, and log them to a PC hard drive or SD card, enabling unparalleled access to metrics for post-mission analysis? None that we know of.


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Key Features

Compact Status Logger

  • Connects via cable to an RDMS™ Telemetry Receiver and your PC
  • Quasonix user interface software runs on your PC

Rackmount Status Logger with Integrated Controller

  • Status Logger application runs on an internal controller
  • Supports up to four RDMS receivers
  • Status information can be offloaded to USB or SD card storage devices
  • Connect your monitor and keyboard to the logger to view the user interface software
  • Unit can be remotely accessed over Ethernet with the use of VNC Viewer software (included)

Product Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature

Precision-Drive Antenna Systems2023.11.01

Quasonix Precision Drive 6-foot antennas (PD450)

Flexibility, Durability, and Innovation

Quasonix offers a series of Precision Drive (PD) pedestals utilizing reflectors from 3 feet to 20 feet in diameter, which can be easily integrated with RF and optical payloads for a wide range of telemetry tracking applications.  The PD series of positioners and the ACU1000 antenna control unit (ACU) are designed and manufactured to operate in extreme environments, incorporating modular designs and industrial grade products, conceived with long service life, minimal maintenance and robust performance in mind.

Innovations include advanced L/S/C-band E-scan feeds, improved Cassegrain design with vertex positioned feed, HyperTrack™ accurate digital tracking, advantageous use of new SEGR and IRIG DQM and DQE, new interference filtering and mitigation, advanced Target Simulation, new Ground Station Analyzer, iNet compatibility, EVTM (Ethernet Via Telemetry), TDD (Time Division Duplex uplink), and more.


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Key Features

  • Complete Tracking Antenna Systems 
    Quasonix offers the entire system: pedestals, reflectors, feeds, motors, servos, slip rings, acquisition aids, and the industry’s most full-featured antenna control unit—all backed by the legendary Quasonix technical support 
  • Modular Pedestal Design 
    Robust tracking systems are available to support reflectors from 3 feet to 20 feet in diameter; Quasonix has right-sized antennas for fixed, mobile, or portable applications 
  • Plano-Centric Drive Systems 
    Advanced design delivers positioning accuracy and repeatability to 0.01 degrees; sealed gearbox housings require no adjustments and have provided flawless operation for 20 years—and still counting 
  • Simultaneous Transmit and Receive 
    Quasonix offers simultaneous tracking on downlink signals with uplink transmission to the target vehicle; user has independent selection of antenna polarization, as well as the RF transmit/receive bands 
  • Antenna Control Unit (ACU) 
    Accepts pointing data from remote customer slave sources; server based local ACU allows for slaving of one PD series to another and enables tracking from user provided files of predicted or projected data 
  • Conical Scanning or Electronic Scanning 
    Bulletproof conical scanning provides the lowest cost and highest possible C/T, while electronic scanning mitigates tracking jitter due to signal modulation induced by motion of the target vehicle 
  • Seamless Multi-band Operation 
    Covers Lower L, Upper L, S, and C bands all in one unit; no feed swapping

Product Literature

User Manuals and Guides

Software Downloads

Quasonix Product Lines

other-product-information literature

QTrack™ Antennas2024.01.01

Self-Contained Ground Station

This low-gain antenna based on the Quasonix Acquisition Aid Antenna, coupled with the industry-leading RDMS™ telemetry receiver, is the perfect solution for portable or mast-mounted antenna applications. Combined with our state-of-the-art antenna control unit (ACU) with its straightforward user interface, the QTrack™ enables simple and robust data capture for your missions.

Check out a demonstration of the dexterity of a QTrack™ antenna as it auto-tracks and recovers telemetry data from a drone. Can your antenna do this?


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FeaturesOptionsAccessoriesOperation

Key Features

  • Portable
    Two-person transport and setup (transport case recommended); free-standing antenna can be set up easily using a Moog Gibraltar tripod (model 4-60450-0A, available from Quasonix as part number QC-ACC-001) or equivalent
  • Versatile
    Allows for portable, bi-directional Ethernet Via Telemetry (if equipped with integrated uplink transmitter)
  • Simultaneous LHCP and RHCP RF Outputs
    2-channel rotary joint allows continuous azimuth travel
  • Dual Axis Pedestal
    Multi-band SCM feed mounted in a dual axis pedestal; includes power supplies, slip rings, and rotary joint
  • Electronic Scanning for Highly Dynamic Targets
    Quasonix feeds sweep the beam electronically, allowing scan rates up to 50 kHz, greatly mitigating the challenges inherent in tracking targets that impose high degrees of amplitude modulation on transmitted signals

 

Product Literature

Type Title Version File Size Updated Length Description

Transportable Antennas Slideshow 2023.10.23 1:52 Quasonix antennas are going places, through innovative engineering that allows for greater size, mobility, and utility, while maintaining extended durability and jitter-free precision tracking. This slideshow gives you a taste of the ways we are responding to customers’ needs. You CAN take it with you.

QTrack™ Demonstration 2020.12.19 7:50 Demonstration of the agility of a QTrack™ antenna as it auto-tracks a drone. Quasonix QTrack™ portable low-gain antennas, coupled with industry-leading Quasonix RDMS™ telemetry receivers, are the perfect solution for portable or mast-mounted antenna applications. Can your antenna do this?

QTrack™ Antenna Datasheet 2023.10.16 Features of the QTrack™ telemetry antenna and its accompanying Antenna Control Unit (ACU), plus specifications.

Available Options

  • NEW! Camera Kit
    COHU 3430HD series camera, 1080 pixel, 30 fps, 30x optical zoom (4.5 mm to 135 mm focal length)
  • Eternet Via Telemetry (EVTM)
    When equipped with optional integrated uplink transmitter, the QTrack™ becomes part of your EVTM setup, putting your test article on your ground station LAN

 

Option Literature

Type Title Version File Size Updated Length Description

Accessory Literature

Type Title Version File Size Updated Length Description

User Manuals and Guides

Type Title Version File Size Updated Length Description

QTrack™ Antenna Manual (Draft) Preliminary 0.15 2022.10.17 Draft user manual: Installation, operation, and maintenance of the QTrack™ antenna system.

Antenna Control Unit Manual 1.5.2 2021.02.04 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

Software Downloads

Type Title Version File Size Updated Length Description

Quasonix Product Lines

other-product-information literature

RDMS™ Compact Receivers2022.01.03

Quasonix RDMS™ compact receiver

Airborne Accuracy

Quasonix’s multi-mode compact RDMS™ telemetry receiver features an extremely sensitive RF downconverter integrated with the company’s market-leading ARTM demodulator and bit synchronization in a compact 12 cubic inch flight-ready package. When compared to the competition, RDMS™ offers a remarkable 6 to 8 dB sensitivity advantage. What you choose to do with the extra link margin is up to you.


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FeaturesOptionsAccessoriesOperation

Key Features

  • Complete Receiver – RF to Bits
    A single-box solution that accepts RF signals, and delivers baseband clock and data. No external add-ons required.
  • Flight-ready package
    Compact 12 in.³ (4.00″ x 3.00″ x 1.00″) enclosure.
  • True Trellis Demodulation in all ARTM Modes
    Provides true trellis detection in all three ARTM modes for optimal demodulation.
  • Lower L, upper L, full S, C, or multiple bands available
  • Lowest noise figure
    3.5 dB noise figure bests all other ARTM receivers on the market, hands down.

 

Product Literature

Type Title Version File Size Updated Length Description

RDMS™ Compact Receiver Datasheet (Gen 3) 2023.10.11 Features, specifications, options, and possible band configurations for Quasonix’s third-generation compact (airborne) RDMS™ telemetry receiver.

Receiver and Transmitter Catalog 2022.11.28 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.

Available Options

  • Powerful adaptive equalizer mitigates multipath distortion
  • Optional contiguous tuning from 200 MHz through 2500 MHz and 4400 MHz through 5250 MHz
  • Low Density Parity Check coding, included in all receivers with SOQPSK demodulation, operates with Quasonix LDPC-enabled transmitters to improve link margin by up to 9 dB, while still using 22% less bandwidth than PCM/FM at the same payload data rate
  • Extended temperature range (-40°C to +85°C)
  • Viterbi decoder (k=7, R=1/2), Tier 0, Legacy
  • SAW IF filters (14)
  • Wide voltage (15-35 VDC)
  • Ethernet payload, used for Ethernet Via Telemetry (EVTM)

 

Option Literature

Type Title Version File Size Updated Length Description

RDMS™ Adaptive Equalizer Demonstration – SOQPSK 2022.12.09 1:33 Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming an SOQPSK signal with severe three-ray multipath distortion into nearly perfect data.

RDMS™ Adaptive Equalizer Demonstration – PCMFM 2022.12.09 2:03 Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming a PCMFM signal with severe three-ray multipath distortion into nearly perfect data.

Receiver and Transmitter Space-Time Coding Datasheet 2022.11.19 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.

Receiver and Transmitter Low-Density Parity Check Datasheet 2023.10.12 The Low Density Parity Check (LDPC) Forward Error Correction mode improves link margin equivalent to nearly tripling the operating distance on your telemetry link.

RDMS™ Receiver Adaptive Equalizer Datasheet 2022.11.16 Describes Quasonix’s telemetry receivers’ Adaptive Equalizer Mode, which combats multipath fading.

Accessories

Image Item Description
Quasonix RDMS™ compact (airborne) receiver heat sink Airborne Receiver Heat Sink Heat sink for 3″ x 4″ compact (airborne) receiver. Does not require a power source. Part Number: QSX-AC-RXHS
Quasonix RDMS™ compact receiver MDM-15 RS-422 and TTL wiring harness MDM-15 RS-422 and TTL Wiring Harness for RDMS™ Male MDM-15 connector wiring harness with banana plugs for power and ground, BNC connectors for TTL clock and data, and a DB-9 connector for serial control. Part Number: QSX-AC-MDM15-HARNESS-SOCK-RDMS

Accessory Literature

Type Title Version File Size Updated Length Description

User Manuals and Guides

Type Title Version File Size Updated Length Description

RDMS™ Receiver Scripting Guide 1.0 2023.01.25 Technical guide for understanding, creating, and editing scripts for Quasonix RDMS™ receivers.

RDMS™ Receiver Telnet and Serial Control Protocol Guide 1.0.5 2022.12.12 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.

RDMS™ Receiver Bit Error Rate Testing Guide 1.0.1 2022.04.24 Instructions and commands for bit error rate testing on Quasonix RDMS™ receivers, plus guidance on using test noise (AWGN) commands.

Receiver and Transmitter Low-Density Parity Check Guide 1.1.1 2024.01.26 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.

Phase Noise Compensation Training 2015.06.11 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).

RDMS™ Compact Receiver Manual (Gen 3) 1.2.20 2023.12.08 Operating instructions for Quasonix’s third-generation compact RDMS™ telemetry receiver.

Software Downloads

Type Title Version File Size Updated Length Description

Receiver and Transmitter Terminal Software 1.9b

<1 MB

2015.06.11 A simple serial port (COM) terminal emulation program used for serial communication with Quasonix products.

Quasonix Product Lines

other-product-information literature

Transmitter Pinout 282018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 28.

timter transmitterspinout-diagram drawing

Transmitter Pinout 302018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 30.

timter transmitterspinout-diagram drawing

Transmitter Pinout 322018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 32.

timter transmitterspinout-diagram drawing

Transmitter Pinout 342018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 34.

timter transmitterspinout-diagram drawing

Transmitter Pinout 362020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 36.

timter transmitterspinout-diagram drawing

Transmitter Pinout 402018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 40.

timter transmitterspinout-diagram drawing

Transmitter Pinout 422018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 42.

timter transmitterspinout-diagram drawing

Transmitter Pinout 442018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 44.

timter transmitterspinout-diagram drawing

Transmitter Pinout 462018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 46.

timter transmitterspinout-diagram drawing

Transmitter Pinout 482018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 48.

timter transmitterspinout-diagram drawing

Transmitter Pinout 502020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 50.

timter transmitterspinout-diagram drawing

Transmitter Pinout 532020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 53.

timter transmitterspinout-diagram drawing

Transmitter Pinout 542020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 54.

timter transmitterspinout-diagram drawing

Transmitter Pinout 552018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 55.

timter transmitterspinout-diagram drawing

Transmitter Pinout 572018.08.20

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 57.

timter transmitterspinout-diagram drawing

Transmitter Pinout 582018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 58.

timter transmitterspinout-diagram drawing

Transmitter Pinout 592020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 59.

timter transmitterspinout-diagram drawing

Transmitter Pinout 602020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 60.

timter transmitterspinout-diagram drawing

Transmitter Pinout 622018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 62.

timter transmitterspinout-diagram drawing

Transmitter Pinout 642018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 64.

timter transmitterspinout-diagram drawing

Transmitter Pinout 662020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 66.

timter transmitterspinout-diagram drawing

Transmitter Pinout 702018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 70.

timter transmitterspinout-diagram drawing

Transmitter Pinout 742018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 74.

timter transmitterspinout-diagram drawing

Transmitter Pinout 762018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 76.

timter transmitterspinout-diagram drawing

Transmitter Pinout 802018.08.21

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 80.

timter transmitterspinout-diagram drawing

Transmitter Pinout 862020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 86.

timter transmitterspinout-diagram drawing

Transmitter Pinout 882018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 88.

timter transmitterspinout-diagram drawing

Transmitter Pinout 902018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 90.

timter transmitterspinout-diagram drawing

Transmitter Pinout 922018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 92.

timter transmitterspinout-diagram drawing

Transmitter Pinout 942018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 94.

timter transmitterspinout-diagram drawing

Transmitter Pinout 962018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 96.

timter transmitterspinout-diagram drawing

Transmitter Pinout 982018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 98.

timter transmitterspinout-diagram drawing

Transmitter Pinout D42020.02.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code D4.

timter transmitterspinout-diagram drawing

Transmitter Pinout N12018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N1.

nanotx transmitterspinout-diagram drawing

Transmitter Pinout N22018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N2.

nanotx transmitterspinout-diagram drawing

Transmitter Pinout N72018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N7.

nanotx transmitterspinout-diagram drawing

Transmitter Pinout N82020.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N8.

nanopuck transmitterspinout-diagram drawing

Transmitter Pinout N92018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N9.

nanotx transmitterspinout-diagram drawing

Transmitter Pinout P12018.08.22

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code P1.

picotx transmitterspinout-diagram drawing

Transmitter Pinout A372018.08.23

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code A37.

timter transmitterspinout-diagram drawing

Transmitter Pinout ND2019.01.29

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code ND.

nanopuck transmitterspinout-diagram drawing

Transmitter Pinout N32019.05.02

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code N3.

nanopuck transmitterspinout-diagram drawing

Transmitter Pinout 782019.05.02

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 78.

timter transmitterspinout-diagram drawing

Transmitter Pinout 022018.08.17

Connectors and their pin assignments for Quasonix telemetry transmitter pinout code 02.

timter transmitterspinout-diagram drawing
MDM-15 RS-422 and TTL Wiring Harness for RDMS™


Quasonix RDMS™ compact receiver MDM-15 RS-422 and TTL wiring harness

Male MDM-15 connector wiring harness with banana plugs for power and ground, BNC connectors for TTL clock and data, and a DB-9 connector for serial control. The cable is 35 to 36 inches long depending on the connectors. For use with compact receivers.

Part Number: QSX-AC-MDM15-HARNESS-SOCK-RDMS


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wiring-connector accessoriesother-product-information literature
MMCX to SMA Adapter Cable


Quasonix nanoTX™ transmitter MMCX to SMA adapter cable

RF connection for your nano transmitter. RG-316 coaxial cable with right-angle MMCX and SMA connectors. Length 34 cm (13.4 inches).

Part Number: QSX-AC-MMCX-SMA-R-R-34


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adapter-converter wiring-connector accessoriesother-product-information literature
Transmitter Airborne IntelliCool™ Heat Sink Wiring Harness


Quasonix TIMTER™ transmitter-powered heat sink wiring harness

Replacement external wiring harness for fan-cooled heat sink for 2″ x 3″ transmitters.

Part Number: QSX-AC-HARNESS-HEATSINK-TX


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transmitter-airborne-intellicool wiring-connector heat-sink accessoriesother-product-information literature
MDM-9 Female to MDM-9 Male Harness


Quasonix MDM-9 female to MDM-9 male harness

MDM-9 Female to MDM-9 Male Harness, 18 inches.

 

Part Number: QSX-AC-MDM9MF-HARNESSS


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wiring-connector accessoriesother-product-information literature
MDM-15 RS-422 and TTL Wiring Harness


Quasonix TIMTER™ transmitter MDM-15 RS-422 and TTL wiring harness

An MDM-15 wiring harness for connecting to transmitters with both RS-422 and TTL clock and data baseband interfaces. It includes banana plugs for power and ground, BNC connectors for clock and data, and a DB-9 connector for serial control. The cable is 35 to 36 inches long depending on the connectors.

Part Number: QSX-AC-MDM15-HARNESS-PIN-VR


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wiring-connector accessoriesother-product-information literature
RDMS™ Airborne Heat Sink


Quasonix RDMS™ compact (airborne) receiver heat sink

Heat sink for 3″ x 4″ compact (airborne) RDMS™ receiver. Does not require a power source.

It is important that the RDMS™ be kept within its specified operating range of -40°C to +70°C. At maximum bit rates, the unit dissipates approximately 20 watts. At normal ambient room temperatures, a small fan blowing across the top cover is adequate. Higher ambient temperatures will require more airflow and/or a finned heat sink such as this one on the cover.

Part Number: QSX-AC-RXHS


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compact-rdms-heat-sink heat-sink accessoriesother-product-information literature
Adapter Plate for 2.5″ x 3.5″ Footprint


Quasonix TIMTER™ transmitter adapter plate for a 2

This adapter plate allows for the standard footprint 2” x 3” TIMTER™ to be mounted to the larger 2.5” x 3.5” mounting surface occupied by other industry transmitters. Note, this adapter plate is not used with the transmitter-powered heat sink. The appropriate adapter plate is included in the kit.

Part Number: QSX-AP96


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adapter-converter accessoriesother-product-information literature
MDM-15 TTL Connector with Pigtails


Quasonix TIMTER™ transmitter MDM-15 TTL connector with pigtails

Connect your 15-pin TIMTER™ with TTL clock and data baseband using this pre-wired connector with 36” color-coded pigtail cables. Made by Glenair. (Mfr model number M83513/04-B04N)

Part Number: QSX-AC-MDM15-36-SOCK


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wiring-connector accessoriesother-product-information literature
MDM-15 RS-422 Connector with Pigtails


Quasonix TIMTER™ transmitter MDM-15 RS-422 connector with pigtails

Connect your 15-pin TIMTER™ with RS-422 clock and data baseband using this pre-wired connector with 36” color-coded pigtail cables. Made by Glenair. (Mfr model number M83513/03-B04N)

Part Number: QSX-AC-MDM15-36-PIN


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wiring-connector accessoriesother-product-information literature
15-Pin Nano-D TTL Wiring Harness


Quasonix nanoTX™ transmitter 15-Pin Nano-D TTL wiring harness

Connect your 15-pin nano transmitter with TTL clock and data baseband. This wiring harness includes banana plugs for power and ground, BNC connectors for clock and data, and a DB-9 connector for serial control. It is 33 to 36 inches long, depending on the connectors.

Part Number: QSX-AC-NANO15-HARNESS


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wiring-connector accessoriesother-product-information literature
15-Pin Nano-D TTL Pigtails


Quasonix nanoTX™ transmitter 15-Pin Nano-D TTL pigtails

Connect your 15-pin nano transmitter with TTL clock and data baseband using this Nano-D connector with 36” color-coded, teflon-coated pigtail cables.

Part number: QSX-AC-NANO15-36PT


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wiring-connector accessoriesother-product-information literature
MDM-15 TTL Wiring Harness


Quasonix TIMTER™ transmitter MDM-15 TTL wiring harness

An MDM-15 wiring harness for connecting to transmitters with TTL clock and data baseband interface. It includes banana plugs for power and ground, BNC connectors for clock and data, and a DB-9 connector for serial control. The cable is 35 to 36 inches long depending on the connectors.

Part Number: QSX-AC-MDM15-HARNESS-SOCK


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wiring-connector accessoriesother-product-information literature
21-Pin Nano-D RS-422 Pigtails


Quasonix nanoTX™ transmitter 21-Pin Nano-D RS-422 pigtails

Connect your 21-pin nano transmitter with RS-422 clock and data baseband using this Nano-D connector with 36” color-coded, teflon-coated pigtail cables.

Part Number: QSX-AC-NANO21-36PT


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wiring-connector accessoriesother-product-information literature
MDM-15 RS-422 Wiring Harness


Quasonix TIMTER™ transmitter MDM-15 RS-422 wiring harness

An MDM-15 wiring harness for connecting to transmitters with RS-422 clock and data baseband interface. It includes banana plugs for power and ground, BNC connectors for clock and data, and a DB-9 connector for serial control. The cable is 35 to 36 inches long depending on the connectors.

Part Number: QSX-AC-MDM15-HARNESS-PIN


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wiring-connector accessoriesother-product-information literature
Heat Sink Thermal Pad

2″ x 3″ Thermal Pad, Bergquist QPAD II, 0.006″/0.152mm thick, recommended for use with heat sinks. (Mfr model number BG35352)

See the Henkel site for more information, including the technical data sheet.

Part Number: QSX-AC-TXTP


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heat-sink accessoriesother-product-information literature
Transmitter Airborne IntelliCool™ Heat Sink

The heat sink assembly includes an integral +12 VDC fan and temperature-controlled power on at +37°C. Fan speed is regulated to compensate for changes in air pressure/density under high altitude conditions. Two MDM-15 connectors and a provided pigtail cable allow the heat sink to draw power directly from a TIMTER™ transmitter, eliminating the need for a separate external power supply. Operates from 21 VDC to 34 VDC. The wiring harness connects to any 2″ x 3″ TIMTER™, regardless of MDM-15 gender, by plugging into either the male or female connector on the heat sink. An adapter plate and Bergquist QPAD II thermal pad are also included.

Part Number: QSX-AC-HS-28V-SP


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Product Literature

User Manuals and Guides

Thermal Considerations

The heat sink required for a particular transmitter depends heavily on the installation. Factors such as altitude, air temperature, air flow, and mass of the mounting surface all have a substantial impact on the flow of heat away from the transmitter. Quasonix offers several types of integrated and add-on heat sinks. Please contact support@quasonix.com for the power dissipation required and heat sink recommendations for your particular TIMTER™ transmitter.

Regardless of the heat sink, Quasonix strongly suggests using a thermal pad, such as Q-Pad® II from Bergquist. See the Henkel site for more information.

transmitter-airborne-intellicool heat-sink accessoriesother-product-information literature
Transmitter Bench Heat Sink

The heat sink assembly includes an integral +12 VDC fan and a power supply transformer. Use for TIMTER™, Dual TIMTER™, and nanoTX™ transmitter testing at the bench; not airborne approved.

Part Number: QSX-AC-32-HS-12V
(formerly QSX-TIMTER-HS-12V)


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Product Literature

Thermal Considerations

The heat sink required for a particular transmitter depends heavily on the installation. Factors such as altitude, air temperature, air flow, and mass of the mounting surface all have a substantial impact on the flow of heat away from the transmitter. Quasonix offers several types of integrated and add-on heat sinks. Please contact support@quasonix.com for the power dissipation required and heat sink recommendations for your particular TIMTER™ transmitter.

Regardless of the heat sink, Quasonix strongly suggests using a thermal pad, such as Q-Pad® II from Bergquist. See the Henkel site for more information

transmitter-bench-heat-sink heat-sink accessoriesother-product-information literature
Transmitter Digital Frequency and Mode Switchbox


Quasonix TIMTER™ transmitter digital frequency and mode switchbox

While the TIMTER™ provides a standard configuration interface that is easily accessible via a computer terminal, some users prefer configuration via an external switch box. The 2nd Generation Quasonix switch box, used with the P9 option, provides six LED digits used to display the mode and frequency. This includes a total of five digits of frequency step up or down, in MHz, and one digit of mode selection in terms of the ARTM “Tier” number. There is also a channel selector for channel 1 or channel 2 when connected to a Dual Telemetry Transmitter. An 18” MDM-9 to MDM-9 cable harness is included.

Part Number: QSX-AC-DSWBX


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User Manuals and Guides

switchbox-gen-2 accessoriesother-product-information literature
21-Pin Nano-D RS-422 Wiring Harness


Quasonix nanoTX™ 21-pin Nano-D RS-422 wiring harness

Connect your 21-pin nano transmitter with RS-422 clock and data baseband. This wiring harness includes banana plugs for power and ground, BNC connectors for clock and data, and a DB-9 connector for serial control. It is 33 to 36 inches long, depending on the connectors.

Part Number: QSX-AC-NANO21-HARNESS


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wiring-connector accessoriesother-product-information literature
USB to Serial Converter Cable


Quasonix USB-to-serial converter cable

The 36 inch long USB to serial converter cable allows for configuration of the transmitter with a computer that does not have a serial port. An 18 inch long cable is also available.

Part Number: QSX-AC-USBSER-CONV


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adapter-converter wiring-connector accessoriesother-product-information literature

RDMS™ Rackmount Receiver Manual (Gen 3, R9 / R10)2016.10.252.5.8

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R11)2016.12.232.6.3

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R12 / R13)2017.09.072.8.3

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R14)2018.02.103.0.5

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R15)2018.06.123.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

EVTM Encoder/Decoder Manual2022.11.181.1.4

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

encoder-decoder ethernet-via-telemetry networkingproduct-user-manual manuals

Transmitter Switchbox Manual (Gen 1)2019.08.051.4.1

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

switchbox-gen-1 accessoriesproduct-user-manual manuals

Receiver and Transmitter Handheld Programmer Manual (Gen 1)2019.08.052.1.1

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

handheld-programmer accessoriesproduct-user-manual manuals

Transmitter Heat Sinks Datasheet2023.11.17

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

transmitter-airborne-intellicool transmitter-bench-heat-sink heat-sink accessoriesdatasheet literature

Receiver and Transmitter Space-Time Coding Datasheet2022.11.19

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

compact-rdms-gen-3 compact-receiver-combiner dual-timter rackmount-rdms-gen-3 receivers-demodulators transmittersdatasheet literature

Receiver and Transmitter Low-Density Parity Check Datasheet2023.10.12

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

compact-rdms-gen-3 compact-receiver-combiner dual-timter nanotx rackmount-rdms-gen-3 timter receivers-demodulators transmittersdatasheet literature

Transmitter Handheld Programmer Manual (Gen 2)2021.02.041.0.2

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

handheld-programmer accessoriesproduct-user-manual manuals

Phase Noise Compensation Training2015.06.11

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

compact-rdms-gen-2 compact-rdms-gen-3 dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsproduct-training manuals

Receiver Analyzer Manual (Gen 2)2022.03.302.5.9

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

receiver-analyzer-gen-2 test-equipmentproduct-user-manual manuals

Receiver Analyzer 101 Training (Gen 2)2015.07.23

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

receiver-analyzer-gen-2 test-equipmentproduct-training manuals

RDMS™ Rackmount Receiver Manual (Gen 2)2019.08.053.5.1

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

rackmount-rdms-gen-2 receivers-demodulatorsproduct-user-manual manuals

DMS™ Demodulator Manual2019.08.051.4.2

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

dms-demodualtor receivers-demodulatorsproduct-user-manual manuals

RDMS™ Compact Receiver Manual (Gen 3)2023.12.081.2.20

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

compact-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Status Logger Manual2019.08.052.1.1

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

sim status-logger test-equipmentproduct-user-manual manuals

RDMS™ Rackmount Receiver Tape Output Configuration Guide2018.07.231.1.1

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

RDMS™ Rackmount Receiver Firmware Update Guide (Gen 3)2021.11.011.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

RDMS™ Compact Receiver Datasheet (Gen 3)2023.10.11

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

compact-rdms-gen-3 receivers-demodulatorsdatasheet literature

Ethernet Via Telemetry Datasheet2023.10.16

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

encoder-decoder node-controller transceiver ethernet-via-telemetry networkingdatasheet literature

RDMS™ Receiver Adaptive Equalizer Datasheet2022.11.16

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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsdatasheet literature

RDMS™ Rackmount Receiver Datasheet (Gen 3)2023.12.11

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

rackmount-rdms-gen-3 receivers-demodulatorsdatasheet literature

RDMS™ Status Logger Datasheet2023.10.16

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

status-logger test-equipmentdatasheet literature

Transmitter RF Troubleshooting Guide2019.07.251.2

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

Transmitter Airborne IntelliCool™ Heat Sink 2×3 onto 4×3 Installation Guide2018.10.26

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

transmitter-airborne-intellicool heat-sink accessoriesproduct-technical-guide manuals

Transmitter Overtemp Control Guide2018.10.261.0

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

TIMTER™ Transmitter Manual2024.01.303.9.18

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

timter transmittersproduct-user-manual manuals

Rackmount Transmitter Manual2019.08.051.2.1

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

rackmount-transmitter-platform transmittersproduct-user-manual manuals

TIMTER™ Dual Transmitter Manual, Firmware v12023.11.221.6.16

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

dual-timter transmittersproduct-user-manual manuals

Transmitter Binary Protocol Tester Manual2021.02.041.0.4

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-user-manual manuals

Transmitter Binary Protocol Manual2021.02.034.0.3

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-user-manual manuals

IRIG 106-13, Appendix N Interpretation2020.07.141.2

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

TIMTER™ Dual Transmitter Datasheet2023.09.24

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

dual-timter transmittersdatasheet literature

picoTX™ Transmitter Datasheet2022.11.16

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

picotx transmittersdatasheet literature

TIMTER™ Transmitter Datasheet2023.09.25

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

nanopuck nanotx timter transmittersdatasheet literature

Antenna Control Unit Manual2021.02.041.5.2

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

precision-drive qtrack antennasproduct-user-manual manuals

QTrack™ Antenna Datasheet2023.10.16

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

qtrack antennasdatasheet literature

Receiver and Transmitter Catalog2022.11.28

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

compact-rdms-gen-3 encoder-decoder nanopuck nanotx node-controller rackmount-rdms-gen-3 receiver-analyzer-gen-2 receiver-analyzer-gen-3 timter transceiver transmitter-airborne-intellicool transmitter-bench-heat-sink wiring-connector receivers-demodulators ethernet-via-telemetry networking transmitters test-equipment heat-sink accessoriescatalog literature

ISO 9001:2015 Certificate (West Chester)2023.06.25

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

nonepolicy-document company

F-20 Quality Notes2017.12.14

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

nonepolicy-document company

RDMS™ Rackmount Receivers2019.03.25

Quasonix RDMS™ 1U rackmount receiver

The Final Word on Data Integrity

The highest performing telemetry receiver on the market is available in an elegant, compact 1U rack mount package and a 3U touchscreen package with dual, 7-inch full color touchscreens. Configurations include one channel, two channels, or two channels plus combiner; an integrated three-channel spectrum analyzer; automatic AGC zeroing; PCM deframing (header detection/extraction, Sub-Frame ID (SFID) checking/extraction); built-in playback demodulator; combiner IF output; simultaneous TTL and RS-422 outputs; contiguous frequency tuning; adaptive equalizer; and decoding for SOQPSK Space Time Coded and Low Density Parity Check encoded signals.


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FeaturesOptionsAccessoriesOperation

Key Features

  • Complete Receiver – RF to Bits – a single-box solution that includes downconversion, demodulation, and bit synchronization
  • Data Quality Encapsulation (DQE) to bundle Data Quality Metric (DQM) words with payload data, including a sync word to aid BSS time alignment; built-in real-time DQM display
  • Best-Channel Selector (BCS) seamlessly selects the best channel (Channel 1, Channel 2, or Pre-Detection Diversity Combiner) based on DQM, which is then used as the combiner data output
  • Built-in integrated three-channel spectrum analyzer shows frequency domain view for up to three channels simultaneously
  • Multi-Mode diversity combiner supports both Maximal Ratio Combining and Best Source Selection modes and features a revolutionary dynamic time alignment function that increases the allowable time skew between channels by over 1300 nanoseconds—more than 60 bits at high bit rates!
  • Built-in playback demodulator IF inputs for each channel, 75 kHz to 20 MHz, or 70 MHz with selectable SAW filter
  • Simultaneous RS-422 and TTL for all units
  • NEW IRIG 218-20 compatible telemetry transport (TMoIP) via 1000 Base-T Gigabit Ethernet RJ45 port (requires -IP2 option)
  • Tuning Range from 200 MHz to 5250 MHz
  • Versatile Rack-Mount Enclosures – 1U or 3U 19” rack-mount chassis houses one or two receiver channels covering P, lower L, upper L, full S, C, or multiple bands per channel
  • Easy on-site updates of software and firmware may now be installed by the customer on-site via SD card or network
  • Best SOQPSK-TG detection in the Industry, yielding improvements of 2 dB or more over the competition’s single-symbol detectors
  • True multi-symbol trellis detection all three ARTM modes for optimal demodulation
  • 3.5 to 5 dB improvement in PCM/FM performance vs. the best single-symbol demodulators, to within 0.2 dB of the theoretical limit
  • Enhanced Modulation Index Tracking* for PCM/FM maintains superior BER performance even if the received signal’s modulation index varies by as much as 500%, a major breakthrough for tracking legacy analog transmitters (*patented)
  • Phase Noise Compensation optimizes demodulator performance for use with legacy TM packs and transmitters with excessive phase noise
  • Typical noise figure of 3.5 dB bests all other ARTM receivers on the market, hands down
  • Synchronizes up to 100 times faster – and maintains sync at lower signal-to-noise ratios – than any other ARTM demodulator
  • Spectrum analyzer shows frequency domain view for up to three channels simultaneously
  • Automatic AGC zeroing
  • Browser-based remote interface

Product Literature

Type Title Version File Size Updated Length Description

RDMS™ Rackmount Reciever Standard Letter of Volatility (Gen 2) 2013.05.06 This document describes the memory and media present in Quasonix RDMS™ second-generation receivers.

RDMS™ Rackmount Reciever Standard Letter of Volatility (Gen 3) 2015.04.30 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.

RDMS™ Rackmount Receiver Datasheet (Gen 3) 2023.12.11 Features, specifications, and options of the Gen 3 Rackmount RDMS™ Telemetry Receiver.

Receiver and Transmitter Catalog 2022.11.28 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.

RDMS™ Rackmount Receiver Comparison (Gen 2 vs Gen 3) 2015.06.29 Feature comparison of Gen 2 and Gen 3 rackmount RDMS™ Receivers, showing the advancements of Gen 3 and enhancements available in the 3U model.

Available Options

  • IP packet output of PCM data (TMoIP, IAW IRIG-218)
  • Ethernet payload, used for Ethernet Via Telemetry (EVTM)
  • Powerful adaptive equalizer mitigates multipath distortion
  • Optional contiguous tuning from 200 MHz through 2500 MHz and 4400 MHz through 5250 MHz
  • Low Density Parity Check coding, included in all receivers with SOQPSK demodulation, operates with Quasonix LDPC-enabled transmitters to improve link margin by up to 9 dB, while still using 22% less bandwidth than PCM/FM at the same payload data rate
  • Space-Time Coding (STC), included in all rackmount receivers with SOQPSK demodulation, operates with Quasonix STC-enabled transmitters to eliminate the dropouts caused by transmit antenna pattern nulls due to inter-antenna interference
  • Viterbi decoder (k=7, R=1/2), Tier 0, Legacy
  • SAW IF filters (14)
  • Cyber-security features

Option Literature

Type Title Version File Size Updated Length Description

RDMS™ Adaptive Equalizer Demonstration – SOQPSK 2022.12.09 1:33 Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming an SOQPSK signal with severe three-ray multipath distortion into nearly perfect data.

RDMS™ Adaptive Equalizer Demonstration – PCMFM 2022.12.09 2:03 Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming a PCMFM signal with severe three-ray multipath distortion into nearly perfect data.

STC vs. Traditional Two-Antenna Solution 2020.05.01 6:30 Recording from an early test flight showing how Space-Time Coding eliminates signal fades inherent in a normal two-antenna solution.

Receiver and Transmitter Space-Time Coding Datasheet 2022.11.19 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.

Receiver and Transmitter Low-Density Parity Check Datasheet 2023.10.12 The Low Density Parity Check (LDPC) Forward Error Correction mode improves link margin equivalent to nearly tripling the operating distance on your telemetry link.

RDMS™ Receiver Adaptive Equalizer Datasheet 2022.11.16 Describes Quasonix’s telemetry receivers’ Adaptive Equalizer Mode, which combats multipath fading.

Accessories

Image Item Description

Accessory Literature

Type Title Version File Size Updated Length Description

User Manuals and Guides

Type Title Version File Size Updated Length Description

RDMS™ Receiver Scripting Guide 1.0 2023.01.25 Technical guide for understanding, creating, and editing scripts for Quasonix RDMS™ receivers.

RDMS™ Receiver Telnet and Serial Control Protocol Guide 1.0.5 2022.12.12 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.

RDMS™ Receiver Bit Error Rate Testing Guide 1.0.1 2022.04.24 Instructions and commands for bit error rate testing on Quasonix RDMS™ receivers, plus guidance on using test noise (AWGN) commands.

RDMS™ Rackmount Receiver Manual (Gen 3, R19) 3.7.12 2023.12.08 Installation and operation of the Quasonix 3rd Generation Rackmount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 19.3.

DQM and RDMS™ Troubleshooting Guide 2021.03.28 Introduction to the Data Quality Metric and its role in troubleshooting, and an essential troubleshooting flowchart for Gen 3 RDMS™.

RDMS™ Rackmount Receiver Manual (Gen 3, R18) 3.6 2020.11.10 Installation and operation of the Quasonix 3rd Generation Rackmount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 18.

RDMS™ Rackmount Receiver Manual (Gen 3, R17) 3.5.2 2019.10.17 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 17.

Receiver and Transmitter Low-Density Parity Check Guide 1.1.1 2024.01.26 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.

RDMS™ Rackmount Receiver Manual (Gen 3, R9 / R10) 2.5.8 2016.10.25 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Versions 9 and 10.

RDMS™ Rackmount Receiver Manual (Gen 3, R11) 2.6.3 2016.12.23 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 11.

RDMS™ Rackmount Receiver Manual (Gen 3, R12 / R13) 2.8.3 2017.09.07 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Versions 12 and 13.

RDMS™ Rackmount Receiver Manual (Gen 3, R14) 3.0.5 2018.02.10 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 14.

RDMS™ Rackmount Receiver Manual (Gen 3, R15) 3.2 2018.06.12 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, matching RDMS™ System Version 15.

Phase Noise Compensation Training 2015.06.11 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).

RDMS™ Rackmount Receiver Tape Output Configuration Guide 1.1.1 2018.07.23 How to set up tape output for third-generation Quasonix rackmount telemetry receivers, including commands, connectors used, and troubleshooting.

RDMS™ Rackmount Receiver Firmware Update Guide (Gen 3) 1.2 2021.11.01 Documents three methods for updating firmware on a Quasonix 3rd-Generation Rackmount RDMS™ Telemetry Receiver: SD Card; Network ; and Local.

RDMS™ Rackmount Receiver Manual (Gen 3, R16) 3.4.8 2019.08.05 Installation and operation of the Quasonix 3rd Generation Rack-Mount RDMS™ Telemetry Receiver, updated to match RDMS™ System Version 16.

Software Downloads

Type Title Version File Size Updated Length Description

Quasonix Product Lines

other-product-information literature

TIMTER™ Dual Transmitters2019.03.25

Quasonix TIMTER™ dual transmitter

Ultimate Bitstream Accuracy Starts Here

Quasonix digital multi-mode dual telemetry transmitters provide the flexibility of two high performance, independent transmitters in one package. The standard 2.0 inch by 3.0 inch design includes a single MDM-15 interface as a primary connector for power, clock and data, and serial communications, while providing two separate RF outputs via SMA connectors. This configuration is ideal for two antenna applications that utilize Space-Time Coding (STC) or Frequency Diversity. The transmitters are designed to transmit airborne telemetry data from a test article to ground stations.

A legacy side-by-side design is employed in applications requiring bands that currently are not available in the Quasonix TIMTER™ Multi-mode Dual Telemetry Transmitter.


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Features
Options
Accessories
Operation
Features

ARTM Modulations

Quasonix transmitters offer three different modulations of increasing spectral efficiency – PCM/FM, SOQPSK-TG, and Multi-h CPM – also known as ARTM Tiers 0, I, and II, at standard bit rates from 0.1 to 28 Mbps (0.05 to 14 Mbps for PCM/FM). Options (HR/LR) are available to extend the upper limit to a maximum of 46 Mbps (23 Mbps for PCM/FM) and the lower limit to a minimum of 50 kbps (25 kbps for PCM/FM). With bandwidth at a growing premium in flight test telemetry, you can take advantage of 2 to 2.5 times the data capacity of the legacy PCM/FM waveform with SOQPSK-TG and Multi-h CPM.

Product Configurations

RF Output Power

  • 10 W per output

Frequency Band

  • Lower S (2200.5 MHz – 2300.5 MHz)
  • Mid C and Euro Mid C (5091.0 MHz – 5250.0 MHz)
  • Lower C (4400.0 MHz – 4950.0 MHz)
  • C with Mid C (4400.0 MHz – 4950.0 MHz) and (5091.0 MHz – 5150.0 MHz)
  • C and Euro Mid C (4400.0 MHz – 4950.0 MHz) and (5091.0 MHz – 5250.0 MHz)
  • Lower L (1435.5 MHz – 1534.5 MHz)
  • Upper S (2300.5 MHz – 2394.5 MHz)
  • S (2200.5 MHz – 2394.5 MHz)

Baseband Interface

  • TTL – 10k ohms to ground
  • TTL – 75 ohms to ground
  • TTL – Selectable between 75 ohms to ground and 10k ohms to ground
  • TIA/EIA-422 (RS-422) – 120 ohms differential
  • TIA/EIA-422 (RS-422) – 120 ohms differential, even when unit is powered off
  • Dual-mode – Selectable between TTL (terminated 10 ohms to ground) and RS-422 (terminated 120 ohms differential)
  • Dual-mode – Selectable between TTL (terminated 75 ohms to ground) and RS-422 (terminated 120 ohms differential)
  • Tri-mode – Selectable between TTL (terminated 75 ohms to ground), TTL (terminated 10k ohms to ground), and RS-422 (terminated 120 ohms differential)
  • LVDS (Low Voltage Differential Signal)

Other Highlights

  • Many Output Power Options with Exceptional Efficiency
  • Outputs from 5 W to 10 W, per output, and optional variable power – all while drawing less current than the competition
  • Automatic Data Rate Tracking
  • As long as the external clock remains within the specified data rates above, the transmitter will automatically adjust to it with no programming or configuration required
  • Bypassable Randomizer
  • Standard IRIG-106 fifteen-stage randomizer, for applications with non-encrypted data
  • Intuitive Control
  • Straightforward configuration and control and platform-independence with serial terminal programming

Product Literature

Type Title Version File Size Updated Length Description

TIMTER™ Dual Transmitter Datasheet 2023.09.24 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.

Options

Available on Most Dual Transmitters 

  • Space-Time Coding (STC)
  • Low Density Parity Check (LDPC) Error Correction System
  • Wide input voltage range
  • Clock generator output to baseband connector
  • Randomizer output to baseband connector
  • Dual power (two settings, “high” and “low”)
  • Variable power (32 discrete power level settings, spanning 24 dB)
  • Clock-free baseband interface
  • Frequency offset
  • High bit rate option increases maximum bit rate to 46 Mbps (23 Mbps for Tier 0)
  • Low bit rate option decreases minimum bit rate to 50 kbps (25 kbps for Tier 0)
  • Limited current in RF Off state
  • Modulation scaling
  • Hardware presets (PS2, PS4, PS8, or PS16)
  • Automatic carrier wave output
  • Adapter plate

Option Literature

Type Title Version File Size Updated Length Description

STC vs. Traditional Two-Antenna Solution 2020.05.01 6:30 Recording from an early test flight showing how Space-Time Coding eliminates signal fades inherent in a normal two-antenna solution.

Receiver and Transmitter Space-Time Coding Datasheet 2022.11.19 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.

Receiver and Transmitter Low-Density Parity Check Datasheet 2023.10.12 The Low Density Parity Check (LDPC) Forward Error Correction mode improves link margin equivalent to nearly tripling the operating distance on your telemetry link.

Accessories

Accessories

Image Item Description
Quasonix TIMTER™ transmitter adapter plate for a 2" x 3" transmitter onto a 2.5" x 3.5" footprint Adapter Plate for 2.5″ x 3.5″ Footprint This adapter plate allows for the standard 2” x 3” TIMTER™ to be mounted to the larger 2.5” x 3.5” mounting surface occupied by other industry transmitters. Part Number: QSX-AP96
Quasonix TIMTER™ transmitter heat sink thermal pad Heat Sink Thermal Pad 2″ x 3″ Thermal Pad, Bergquist QPAD II, 0.006″/0.152mm thick, for use with heat sinks. Part Number: QSX-AC-TXTP
Quasonix TIMTER™ transmitter MDM-15 RS-422 and TTL wiring harness MDM-15 RS-422 and TTL Wiring Harness Female MDM-15 connector wiring harness with banana plugs for power and ground, BNC connectors for both RS-422 and TTL clock and data, and a DB-9 connector for serial control. Part Number: QSX-AC-MDM15-HARNESS-PIN-VR
Quasonix TIMTER™ transmitter MDM-15 RS-422 connector with pigtails MDM-15 RS-422 Connector with Pigtails Female MDM-15 connector with 36-inch pigtails. For RS-422 clock and data. Part Number: QSX-AC-MDM15-36-PIN
Quasonix TIMTER™ transmitter MDM-15 RS-422 wiring harness MDM-15 RS-422 Wiring Harness Female MDM-15 connector wiring harness with banana plugs for power and ground, BNC connectors for RS-422 clock and data, and a DB-9 connector for serial control. Part Number: QSX-AC-MDM15-HARNESS-PIN
Quasonix TIMTER™ transmitter MDM-15 TTL connector with pigtails MDM-15 TTL Connector with Pigtails Male MDM-15 connector with 36-inch pigtails. For TTL clock and data. Part Number: QSX-AC-MDM15-36-SOCK
Quasonix TIMTER™ transmitter MDM-15 TTL wiring harness MDM-15 TTL Wiring Harness Male MDM-15 connector wiring harness with banana plugs for power and ground, BNC connectors for TTL clock and data, and a DB-9 connector for serial control. Part Number: QSX-AC-MDM15-HARNESS-SOCK
Quasonix MDM-9 female to MDM-9 male harness MDM-9 Female to MDM-9 Male Harness MDM-9 Female to MDM-9 Male Harness, 18 inches. Part Number: QSX-AC-MDM9MF-HARNESS
Quasonix TIMTER™ transmitter-powered heat sink, cable, SMA extender, and base plate Transmitter Airborne IntelliCool™ Heat Sink Fan-cooled heat sink for 2″ x 3″ transmitters for airborne applications. Operates from 21 VDC to 34 VDC, powered from existing transmitter wiring. Part Number: QSX-AC-HS-28V-SP
Quasonix TIMTER™ transmitter-powered heat sink wiring harness Transmitter Airborne IntelliCool™ Heat Sink Wiring Harness External wiring harness for fan-cooled heat sink for 2″ x 3″ transmitters. For airborne applications. Part Number: QSX-AC-HARNESS-HEATSINK-TX
Quasonix TIMTER™ transmitter AC-powered heat sink Transmitter Bench Heat Sink Fan-cooled, AC-powered heat sink for transmitters. Used for testing at the bench; not airborne approved. Part Number: QSX-AC-32-HS-12V (formerly QSX-TIMTER-HS-12V).
Quasonix TIMTER™ transmitter digital frequency and mode switchbox Transmitter Digital Frequency and Mode Switchbox Transmitter digital frequency and mode switch box with MDM-9 connector allows configuration without the use of a computer. Part Number: QSX-AC-DSWBX
Quasonix USB-to-serial converter cable USB to Serial Converter Cable Allows for transmitter configuration using a computer that has a USB port but no serial ports. Part Number: QSX-AC-USBSER-CONV

Accessory Literature

Type Title Version File Size Updated Length Description

Transmitter Heat Sinks Datasheet 2023.11.17 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.

Operation

User Manuals and Guides

Type Title Version File Size Updated Length Description

Transmitter SMA Replacement Guide 1.0 2022.02.01 Simple instructions for the field replacement of an SMA (F) connector in a Quasonix TIMTER™ or Dual TIMTER™ telemetry transmitter.

TIMTER™ Dual Transmitter Manual, Firmware v2 1.5.14 2023.11.22 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.

J/F 12 Files (1 MB Download) 2010.07.29 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.

Receiver and Transmitter Low-Density Parity Check Guide 1.1.1 2024.01.26 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.

Transmitter RF Troubleshooting Guide 1.2 2019.07.25 Quick, three-part test to verify that the RF output on a Quasonix telemetry transmitter is working correctly.

Transmitter Overtemp Control Guide 1.0 2018.10.26 How to modify the internal overtemperature (OT) setting using the OC command. This applies to all Quasonix telemetry transmitters.

TIMTER™ Dual Transmitter Manual, Firmware v1 1.6.16 2023.11.22 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.

Transmitter Binary Protocol Tester Manual 1.0.4 2021.02.04 How to test the binary protocol of Quasonix telemetry transmitters using Binary Protocol Tester software provided by Quasonix.

Transmitter Binary Protocol Manual 4.0.3 2021.02.03 The binary serial protocol is designed to facilitate efficient machine to machine communication. This manual defines the binary protocol version 1.009.

IRIG 106-13, Appendix N Interpretation 1.2 2020.07.14 Explains Quasonix’s standard transmitter protocol and how transmitters with the C7 option (IRIG 106-07 control protocol) will behave differently.

TIMTER™ Dual Transmitter Manual (Legacy) 1.3.5 2022.01.31 Installation and operation of Quasonix’s Legacy Dual Telemetry Transmitters.

Software Downloads

Type Title Version File Size Updated Length Description

Transmitter Get Info Software 1.004

<1 MB

2019.11.19 Free Quasonix utility that collects diagnostic information from a transmitter via a serial connection to a computer.

Receiver and Transmitter Terminal Software 1.9b

<1 MB

2015.06.11 A simple serial port (COM) terminal emulation program used for serial communication with Quasonix products.

Transmitter Binary Protocol Tester Software 1.029

<1 MB

2019.04.12 Software (bintest.exe) for testing the binary protocol of Quasonix telemetry transmitters connected to PC via serial port.

Quasonix Product Lines

Thermal Considerations

It is important that the transmitter’s bottom surface (on the face opposite the product label) be securely attached to a baseplate capable of dissipating the power produced by the transmitter model in use. This mounting baseplate must be flat, smooth, and clean.

ATTENTION: You must operate the transmitter with a proper heat sink. Failure to do so may lead to permanent damage to the unit and will void the warranty. Overheating can occur in a matter of seconds when a transmitter is not properly heat-sinked. In absolutely no case should any type of stickers or labels be applied to the bottom surface of the transmitter.

The heat sink required for a particular transmitter depends heavily on the installation. Factors such as altitude, air temperature, air flow, and mass of the mounting surface all have a substantial impact on the flow of heat away from the transmitter. Quasonix offers several types of integrated and add-on heat sinks. Please contact support@quasonix.com for the power dissipation required and heat sink recommendations for your particular TIMTER™ transmitter.

Regardless of the heat sink, Quasonix strongly suggests using a thermal pad, such as Q-Pad® II from Bergquist. See the Henkel site for more information.

other-product-information literature

TIMTER™ Dual Transmitter Manual (Legacy)2022.01.311.3.5

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

dual-timter transmittersproduct-user-manual manuals

GMLRS Transmitter Manual2023.11.271.3.18

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

timter transmittersproduct-user-manual manuals

NanoTX™ Transmitter Manual2023.04.283.4.13

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

nanopuck nanotx transmittersproduct-user-manual manuals

Transmitter Switchbox Manual (Gen 2)2021.02.041.3.3

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

switchbox-gen-2 accessoriesproduct-user-manual manuals

RDMS™ Compact Receiver Manual (Gen 2)2019.08.052.2.1

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

compact-rdms-gen-2 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Comparison (Gen 2 vs Gen 3)2015.06.29

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

rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsother-product-information literature

RDMS™ Rackmount Receiver Manual (Gen 3, R16)2019.08.053.4.8

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

nanoTX™ and nanoPuck™ Transmitters2022.07.01

Quasonix nano family of transmitters

Small Wonder

Starting at a mere 1.3 cubic inches, our nanoTx™ and nanoPuck™ transmitters support the smallest of airborne platforms with programmable multi-mode operation and up to 5 Watts of RF output. The smallest ARTM transmitters now available, Quasonix nano transmitters are ideal for applications with strict SWaP constraints.


Contact Sales

FeaturesOptionsAccessoriesOperation

ARTM Modulations

Quasonix transmitters offer three different modulations of increasing spectral efficiency – PCM/FM, SOQPSK-TG, and Multi-h CPM – also known as ARTM Tiers 0, I, and II, at standard bit rates from 0.1 to 28 Mbps (0.05 to 14 Mbps for PCM/FM). (The maximum bit rate with a Clock Free transmitter is 35 Mbps for all modes.) With bandwidth at a growing premium in flight test telemetry, you can take advantage of 2 to 2.5 times the data capacity of the legacy PCM/FM waveform with SOQPSK-TG and Multi-h CPM.

Product Configurations

RF Output Power

  • 10 mW, 1 W, or 5 W

Frequency Band

  • Lower S band (2200.5 MHz – 2300.5 MHz)
  • Upper S band (2300.5 MHz – 2394.5 MHz)
  • Full S band

Baseband Interface

  • nanoTx™: TTL or TIA/RS-422 (RS-422)
  • nanoPuck™: LVTTL (direct connection, no cabling necessary)

Other Highlights

  • Exceptional Efficiency
  • Outputs from 10 mW to 5 W and optional variable power – all while drawing less current than the competition
  • Quasonix nano transmitters stand alone as the only 1.3 cubic inch transmitters with multi-mode and 5 W output capabilities
  • Configuration flexibility (nanoPuck™): the baseband connector can be located on either the top or bottom of the unit, as can the RF connector
  • Automatic Data Rate Tracking
  • As long as the external clock remains within the specified data rates above, the transmitter will automatically adjust to it with no programming or configuration required
  • Bypassable Randomizer
  • Standard IRIG-106 fifteen-stage randomizer, for applications with non-encrypted data
  • Intuitive Control
  • Straightforward configuration and control and platform-independence with serial terminal programming

 

Product Literature

Type Title Version File Size Updated Length Description

TIMTER™ Transmitter Datasheet 2023.09.25 Features, options, specifications, and select accessories for Quasonix’s range of multi-mode telemetry transmitters, including nanoTX™ and nanoPuck™.

Receiver and Transmitter Catalog 2022.11.28 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.

Available on Most Transmitters

  • Low Density Parity Check (LDPC) Error Correction System
  • Multiple hardware-selected presets (2, 4, 8, or 16)
  • Wide input voltage range
  • Clock generator output to baseband connector
  • Randomizer output to baseband connector
  • Dual power (two settings, “high” and “low”)
  • Variable power (32 discrete power level settings, spanning 24 dB)
  • Clock-free baseband interface
  • High bit rate option increases maximum bit rate to 46 Mbps (23 Mbps for Tier 0)
  • Low bit rate option decreases minimum bit rate to 50 kbps (25 kbps for Tier 0)
  • Automatic carrier wave output

 

Option Literature

Type Title Version File Size Updated Length Description

Receiver and Transmitter Low-Density Parity Check Datasheet 2023.10.12 The Low Density Parity Check (LDPC) Forward Error Correction mode improves link margin equivalent to nearly tripling the operating distance on your telemetry link.

Accessories for nanoPuck

Image Item Description
Quasonix nanoTX™ transmitter MMCX to SMA adapter cable MMCX to SMA Adapter Cable RG-316 coaxial cable with right-angle MMCX and SMA connectors. Length 34 cm (13.4 inches). Part number: QSX-AC-MMCX-SMA-R-R-34

Accessories for nanoTx

Image Item Description
Quasonix nanoTX™ transmitter 15-Pin Nano-D TTL pigtails 15-Pin Nano-D TTL Pigtails A 15-pin Nano-D with 36-inch teflon-insulated pigtails for connecting to transmitters with TTL clock and data baseband interface. Part number: QSX-AC-NANO15-36PT
Quasonix nanoTX™ transmitter 15-Pin Nano-D TTL wiring harness 15-Pin Nano-D TTL Wiring Harness A 15-pin Nano-D wiring harness for connecting to transmitters with TTL clock and data. Includes power, serial control, and baseband connectors. Part Number: QSX-AC-NANO15-HARNESS
Quasonix nanoTX™ transmitter 21-Pin Nano-D RS-422 pigtails 21-Pin Nano-D RS-422 Pigtails A 21-pin Nano-D with 36-inch teflon-insulated pigtails for connecting to transmitters with RS-422 clock and data baseband interface. Part Number: QSX-AC-NANO21-36PT
Quasonix nanoTX™ 21-pin Nano-D RS-422 wiring harness 21-Pin Nano-D RS-422 Wiring Harness A 21-pin Nano-D wiring harness for connecting to transmitters with RS-422 clock and data. Includes power, serial control, and baseband connectors. Part Number: QSX-AC-NANO21-HARNESS
Quasonix TIMTER™ transmitter heat sink thermal pad Heat Sink Thermal Pad 2″ x 3″ Thermal Pad, Bergquist QPAD II, 0.006″/0.152mm thick, for use with heat sinks. Part Number: QSX-AC-TXTP
Quasonix nanoTX™ transmitter MMCX to SMA adapter cable MMCX to SMA Adapter Cable RG-316 coaxial cable with right-angle MMCX and SMA connectors. Length 34 cm (13.4 inches). Part number: QSX-AC-MMCX-SMA-R-R-34
Quasonix TIMTER™ transmitter AC-powered heat sink Transmitter AC-Powered Heat Sink Fan-cooled, AC-powered heat sink for transmitters. Used for testing at the bench; not airborne approved. Part Number: QSX-AC-32-HS-12V (formerly QSX-TIMTER-HS-12V).

Accessory Literature

Type Title Version File Size Updated Length Description

Transmitter Heat Sinks Datasheet 2023.11.17 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.

User Manuals and Guides

Type Title Version File Size Updated Length Description

J/F 12 Files (1 MB Download) 2010.07.29 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.

Receiver and Transmitter Low-Density Parity Check Guide 1.1.1 2024.01.26 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.

Transmitter RF Troubleshooting Guide 1.2 2019.07.25 Quick, three-part test to verify that the RF output on a Quasonix telemetry transmitter is working correctly.

Transmitter Overtemp Control Guide 1.0 2018.10.26 How to modify the internal overtemperature (OT) setting using the OC command. This applies to all Quasonix telemetry transmitters.

Transmitter Binary Protocol Tester Manual 1.0.4 2021.02.04 How to test the binary protocol of Quasonix telemetry transmitters using Binary Protocol Tester software provided by Quasonix.

Transmitter Binary Protocol Manual 4.0.3 2021.02.03 The binary serial protocol is designed to facilitate efficient machine to machine communication. This manual defines the binary protocol version 1.009.

IRIG 106-13, Appendix N Interpretation 1.2 2020.07.14 Explains Quasonix’s standard transmitter protocol and how transmitters with the C7 option (IRIG 106-07 control protocol) will behave differently.

NanoTX™ Transmitter Manual 3.4.13 2023.04.28 Installation and operation of Quasonix’s nanoTX™ and nanoPuck™ Multi-Mode Digital Telemetry Transmitters.

Software Downloads

Type Title Version File Size Updated Length Description

Transmitter Get Info Software 1.004

<1 MB

2019.11.19 Free Quasonix utility that collects diagnostic information from a transmitter via a serial connection to a computer.

Receiver and Transmitter Terminal Software 1.9b

<1 MB

2015.06.11 A simple serial port (COM) terminal emulation program used for serial communication with Quasonix products.

Transmitter Binary Protocol Tester Software 1.029

<1 MB

2019.04.12 Software (bintest.exe) for testing the binary protocol of Quasonix telemetry transmitters connected to PC via serial port.

Quasonix Product Lines

Thermal Considerations

It is important that the transmitter’s bottom surface (on the face opposite the product label) be securely attached to a baseplate capable of dissipating the power produced by the transmitter model in use. This mounting baseplate must be flat, smooth, and clean.

ATTENTION: You must operate the transmitter with a proper heat sink. Failure to do so may lead to permanent damage to the unit and will void the warranty. Overheating can occur in a matter of seconds when a transmitter is not properly heat-sinked. In absolutely no case should any type of stickers or labels be applied to the bottom surface of the transmitter.

The heat sink required for a particular transmitter depends heavily on the installation. Factors such as altitude, air temperature, air flow, and mass of the mounting surface all have a substantial impact on the flow of heat away from the transmitter. Quasonix offers several types of integrated and add-on heat sinks. Please contact support@quasonix.com for the power dissipation required and heat sink recommendations for your particular TIMTER™ transmitter.

Regardless of the heat sink, Quasonix strongly suggests using a thermal pad, such as Q-Pad® II from Bergquist. See the Henkel site for more information.

other-product-information literature
Accessoriesother-product-information literature

About Us2019.03.13



Meet the Team

Learn more about our culture and our legendary support.



News

Get the latest scoop on Quasonix and the industry.

Meet the Team

Our Tradition

Quasonix was founded in 2002 with the purpose of filling a void in the flight-test telemetry market for a company dedicated to the development and deployment of advanced telemetry products. As founder and president of Quasonix as well as the inventor of the SOQPSK waveform (also known as ARTM Tier I), Terry Hill set out to leverage key design experience and market knowledge in order to build a company with a focus on delivering inventive, revolutionary telemetry products.

Nearly two decades later and Quasonix has evolved and grown to reflect an expanding and enthusiastic customer base in the flight test telemetry community. Quasonix’s core tenet of exceeding customer expectations continues today with the consistent development of products that push the envelope of spectral efficiency, power efficiency, size, packaging, and user-friendliness. Quasonix continually breaks new ground and stands apart as the market’s key innovator. Quasonix: Reinventing Telemetry™


Quasonix staff and contractors at ITC 2022
Quasonix staff and contractors in attendance at the 2022 International Telemetry Conference, including Ray O’Connell of RoboCom (far left), winner of the 2022 Telemetry Standards Paper Award.

Support? Yeah, we’ve got that.

When you call Quasonix, you talk with an actual person. Customers are sometimes surprised by that but shouldn’t be. Experts helping experts is the way questions get answered and problems get solved, especially in a technical field like telemetry. And it’s one of the things that sets Quasonix apart. 

Meet some of the people on the front lines of our customer support.

Terry Hill

Founder, President, and Chief Scientist. He brings a background in communication engineering, hardware design, and customer focus that is unique to the industry.

Pam Hill

Active in Human Resources, Accounting, and Finance, Pam is the heart of the company. Along with Terry, Pam makes Quasonix as much a family as it is a place to work.

Don Fox

Have you ever wondered if you’d enjoy sitting down with the US President – any US President – for a beer? Don’t do it. Have a drink with this guy instead. Or talk transmitters. It’s all good.

Paul Radcliffe

CTO of Antenna Systems and a founder of its predecessor, TelAntCo, Paul combines extensive hands-on technical expertise with a deep understanding of customers’ needs.

Ryan Salyers

Engineering Technician supporting RDMS™. While nobody can break the laws of physics, Ryan will be happy to bend them to your will.

Matt Schultz

Has been a leader in production and support for transmitters, receivers, and now antennas. Which is almost as impressive as keeping the office velociraptor-free for the past 42 1/2 days.

Bob Schumacher

System Engineer. Following a career in RF system design and development, now dabbles in digital signal processing and software – yikes! Supports RDMS™ and Status Logger development teams.

Jim Uetrecht

Signal Processing Engineer. Responsible for core digital hardware functionality and algorithm development across all product lines.

Greg Wells

Former standout ice hockey goalie. Current standout Sr. Software Engineer and product development leader on Team RDMS™.

Sean Wilson

Engineering Technician supporting Ethernet Via Telemetry (EVTM) and Receiver Analyzer. His toolkit is packed with a wealth of experience from across all product lines, plus ninja Excel skills.

Latest News

Enhance your expertise

Sign up for the QUASONIX CONNECTION to receive notifications about software updates, get tips for using our products, learn about our latest innovations, and more. Newsletters are sent 3-4 times a year.



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Archives

Events

Newsletters

Press Releases

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Resources


Literature

Product Literature and Demos

Datasheets, catalogs, and more.


Manuals

Operating Instructions

User manuals, technical guides, and software downloads.


Drawings

Product Drawings

STEP models, line drawings, and pinout diagrams.


Training

Telemetry Training

Principles of modulation and ways to improve your telemetry link.


Papers

Conference Papers

In-depth research and findings.


Policies

Policies

Terms and conditions, our warranty, and our quality management.

Literature

Product Literature and Demonstrations

Manuals

User Manuals and Operating Instructions

A Special Note About Rackmount Receivers

Rackmount units produced or updated from late 2016 to present have the manual specific to the receiver and its software version installed in the unit itself, accessible via the receiver’s web server. When feasible, this is the preferred method for finding information about your receiver. Just navigate to the HELP page in the remote client (bottom of the page). When that is not possible, you can use the archive below to find user manuals for compact receivers, compact receiver-combiners, and rackmount receivers by product generation and, for third-generation products, by system version.

The latest system software for Gen 3 receivers is Release 19.3. Quasonix recommends that you update to this version. Software/firmware updates can be added to your receiver on-site via SD card or Network Update. The same applies to certain feature upgrades such Adaptive Equalization and additional operating bands. Read this update guide to learn more about the process, or contact us at sales@quasonix.com regarding pricing of feature upgrades. Software/firmware updates are always free.

Receiver Manual Archive

Gen 3 Compact Receiver

Gen 3 Compact Receiver-Combiner

Gen 3 Rackmount Receiver

Gen 2 Compact Receiver

Gen 2 Rackmount Receiver

Software Downloads

Drawings

STEP Models, Drawings, and Pinout Diagrams

How to Search for a Specific Item

For Transmitter Package and Pinout Codes

Enter the transmitter’s package or pinout code in the search field.

Transmitter part numbers have several alphanumeric segments with dashes in between. The first segment is always QSX. If the second segment has four characters (e.g., QSX-VMR2-1100-10-16-04AB-BR1-PS8-VP-WV), then the pinout code is the fifth segment (16 in this example) and the package code is the sixth segment (04AB). If the second segment has three characters (e.g., QSX-VMR-110-10S-20-4D-BR1-PS8-VP-WV), then the package code is the sixth segment (4D) and the pinout is not included in the part number. To get the pinout code in that case, you will need to refer to documentation such as the quote or sales order, or contact support@quasonix.com.

For Other Products

Enter the part number in the text search box. As you do, the list of related files will be quickly filtered to match.

Videos

Subscribe to the Quasonix Channel to view our top videos and be notified when we add more

Training

Telemetry Training

TM Smorgasbord

In this educational series, written and presented by Terry Hill, get a little taste of “all things telemetry.”

Day 1

This session covers performance metrics and continuous-phase modulation (Tier 0, Tier 1, and Tier II), then starts into the topic of demodulation, examining trellis vs. single-symbol.

Day 2

This session continues the subject of demodulation, covering the Data Quality Metric, diversity combining, and synchronization. It then moves on to channel impairments, with details on adaptive equalization as one impairment-mitigation technique.

Related videos (to view online):

Day 3

The training continues with a review of five more impairment-mitigation techniques – Best Source Selection, Best Channel Selection, Space-Time Coding (STC), Low-Density Parity-Check (LDPC) Coding, and auto-tracking antennas – then wraps up with a look at using all the tools together and a performance comparison and summary.

Related video (to view online):

Advanced Modulation Techniques for Telemetry

Short Course conducted at ITC in 2022 by Terry Hill.

Short Course conducted at ITC in 2017 by Terry Hill.

Digital Signal Processing to Improve Telemetry Links

Short Course conducted at ITC in 2022 by Terry Hill.

Other Telemetry Training

Papers

Conference Papers

Policies

Policies and Procedures

Contact2019.03.19



Sales and Technical Support

Our staff and representatives will help you take telemetry to the next level.



Visit Us

We’d be happy to see you in person in our Headquarters or Antenna Division.

Local Sales Support

Whether you know exactly what you need or require some guidance, you’re in good hands. We work with select sales representatives and distributors so you get premium local sales support. Search the table below to find your location, then click on the corresponding company logo to contact them via their website.

Contact Us

By clicking Send, you acknowledge that your information will be transferred to Quasonix for processing. See our Privacy Policy for more information.

Headquarters:
+1 (513) 942-1287
Antennas: +1 (805) 530-0933

Sales-Related Questions?

To place an order or get answers to pre-sale questions, contact your local sales support using the lookup table on this page. If you need to reach the corporate office, call us at one of the numbers above or write to us at sales@quasonix.com. (This email address should be used for all purchase orders.)

Please review our Terms and Conditions of Sale.

For billing questions, contact us at accounting@quasonix.com.

Need Technical Support?

Many answers to technical and product-related questions can be found via our Resources page.

If you can’t find the information you need, call us at one of the numbers above or write to us at support@quasonix.com.

Visit Us

We’d love to see you! Our headquarters is located in the Greater Cincinnati area. Or visit our antenna division in sunny California. Either way, you’ll receive a warm welcome and get to meet the people who design, test, and support the best products in telemetry.

Quasonix headquarters

Galactic Headquarters

6025 Schumacher Park Drive
West Chester, OH 45069

Antenna Division

353 Science Drive
Moorpark, CA 93021

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Products



Transmitters

Efficient and powerful data transmission.



Antennas

Durable, cutting-edge pedestals and portables.



Receivers

Accurate demodulation in the toughest tests.



Networking

High-speed, reliable traffic and network management



Test Equipment

Measurement to improve your missions.



Accessories

Connectors, cooling, and controllers for your gear.

Who says you can’t have it all?

From data transmission to satellite tracking and reception to demodulation and synchronization, backed up by test equipment to make sure you’re mission-ready and getting the most out of your telemetry gear, Quasonix has you covered. Our end-to-end solutions make us the only company in the industry able to meet all your telemetry needs. Contact your local sales support to learn more or to make a purchase.

FEATURED:

Antennas

Transmitters

Receivers

Networking

Test Equipment

Accessories

Home

If it’s a Quasonix product, then it outperforms the competition.
Otherwise, we just wouldn’t bother.

Who we are

With a razor-sharp focus on the aeronautical telemetry market and a team rich in talent, experience, and sheer determination, Quasonix is able to consistently design, develop, and manufacture what our customers regard as market-leading telemetry products.

Quasonix is… Reinventing Telemetry™.


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What we do

Quasonix is recognized as the industry leader for spectrally efficient modulations such as SOQPSK-TG and Multi-h (ARTM) CPM and for ongoing innovation in the field of telemetry.

Our product line includes multi-mode telemetry transmitters; multi-mode, multi-symbol trellis telemetry demodulators; complete multi-mode telemetry receivers; rack-mount receiver analyzers; precision-drive pedestal antennas; and portable low-gain antennas.

More and more, flight-test engineers are discovering that Quasonix products regularly outperform and outclass all other equipment on the market.

Customer commitment

Quasonix is known for its dedication to customers throughout all phases of interaction, from helping select the right products through delivery and ongoing support.

Quasonix’s Quality Policy is to be the leader in providing high-quality, cutting-edge telemetry solutions and to provide our customers with ever-improving levels of satisfaction. We are committed to anticipating and meeting the requirements of our customers and the ISO9001:2015 standard and continuously improving the quality of the products we build.

To learn more about our focus on quality and on our customers:

Top News

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How do you recognize a true leader?

QUASONIX CONNECTION Volume 2, Issue 1

In this issue:

Eglin Antenna Award

Offering greater capabilities at lower cost

antenna-vol2-issue1-768x140

What did you get for Christmas? Quasonix received an Air Force contract for up to 19 telemetry autotrack antennas. It was a big box.
 
Eglin AFB selected Quasonix in a competitive best value procurement based on performance, capabilities, and experience for TAS (Telemetry Antenna Systems), including systems of 1.8m, 2.4m, 3m, 5m, and 7.3m. 

“Quasonix has already been recognized as the clear leader in the telemetry transmitter and receiver market sectors. This award is an acknowledgment by the USAF that this leadership has now carried over into the antenna sector”, said Terry Hill, president of Quasonix.

These antennas will be delivered with a treasure trove of advanced features including: 

  • Advanced tri-band E-scan feeds
  • Improved cassegrain design with vertex positioned feed
  • Hypertrack accurate digital tracking
  • Advantageous use of new SEGR and IRIG DQM and DQE
  • New interference filtering and mitigation
  • Advanced Target Simulation
  • New Ground Station Analyzer
  • iNet compatibility
  • EVTM (Ethernet Via Telemetry)
  • TDD (Time Division Duplex uplink)
  • Remote system management and
  • Critical security advancements

This game-changing compilation of advanced new antenna features will move telemetry range tracking antennas to a whole new level and benefit a wide range of other customers beyond just the Air Force.

Telemetry Pioneer

Advancing the industry

This year’s ITC (International Telemetering Conference) Pioneer Award was presented to the president and founder of Quasonix, Terry Hill.

Terry has spent the better part of 20 years in and around the telemetry world. He brought a background of communication engineering coupled with hardware design that was not seen in the telemetry community before. He proposed, developed, and fielded telemetry technologies allowing the telemetry community to progress toward spectrally efficient waveforms and the mitigation technologies standardized in IRIG 106.

Terry’s work in telemetry started with the invention of the SOQPSK waveform and its implementation in transmitters. He also developed an ARTM Continuous Phase Modulation scheme and a Multi-Symbol Detection for PCMFM to further improve spectral efficiency. More recently, he has worked on defining a data quality metric that functions without a priori knowledge of the data, vital for implementing diversity for the purpose of combating multipath. Terry continues to be an innovator, leader, and educator of the next generation of telemetry engineers.

In his acceptance speech, Terry noted, “The award has my name on it, and I’m immensely grateful and honored, but I have to say, I need to share it. Yes, I’ve had some good ideas over the years, but without the team that I work with – that’s the engineering team, manufacturing, testing, the sales team – everyone who takes those ideas and turns them into real products – well, they would just be ideas.” We at Quasonix are proud to be part of the success and continuous innovation Terry inspires, meeting real-world problems with real hardware solutions.

New transmitter test lab

Delivering the highest-quality products faster

Wide shot of multiple Quasonix transmitter test stations, showing an efficient side-by-side arrangement with easy access to each.

Every Quasonix transmitter goes through extensive testing before being shipped. That includes examining RF Power Output, Current Draw, Efficiency, Frequency Error, Power Spectral Density (PSD) Plots, and Bit Error Rate (BER). All of these measurements are completed at a variety of frequencies and over the operating temperature of each transmitter, typically from -40°C, +40°C, and +85°C. As a result, automated testing (ATP, or Acceptance Test Procedure) alone takes 5-15 hours per transmitter, with additional manual inspections adding to the thoroughness of our quality assurance. To our knowledge, no one else is more rigorous or provides as much test data to customers as we do.

With demand for transmitters at an all-time high, we have overhauled our transmitter test lab, increasing the number of stations by 40% and adding staff to match. We have also taken the opportunity to improve efficiency and workflow of the testing process, and we are working to enable dual test stations, which will dramatically reduce test time for dual transmitters.

These upgrades are brand new; it will take some time to fully reap the benefits. However, we have heard our customers and understand the need for faster delivery, and we’re working aggressively to improve on that while maintaining our industry-leading quality.

Quick tips for transmitter troubleshooting

Need help identifying the source of issues between your transmitter and receiver? Check out our Transmitter RF Troubleshooting Guide – or, read on about some simple settings that can help.

Mode 6 (Carrier only)

Mode 6 is present on every Quasonix transmitter. Setting to Mode 6 enables a carrier-only signal to quickly check signal integrity or peak signal output at a desired frequency.
 
Command: MO 6

Internal Clock and Data

Setting a transmitter to internal clock and data is a quick way to prove signal integrity from the transmitter to the receiver. Quasonix transmitters have the ability to output a configurable internally generated data pattern. You can set both the clock rate and data pattern.
 
Command: CS 1
Turns on Internal Clock Source
 
Command: DS 1
Turns on Internal Data Source
 
Command: IC x.xx
Sets Internal Clock Rate
IC Display current internal clock rate
IC 4.95 Set internal clock rate to 4.95 MHz
Valid range is 0.002 MHz – 28.0 MHz
Default setting is IC 5 (5.00Mbps)
 
Command: ID xxxx
Sets Internal Data Pattern
ID Report the internal data pattern
ID PN15 Set internal data pattern to PN15
ID AA55 Set internal data pattern to 0xAA55
In SOQPSK mode, ID 5555 or ID AAAA will result in an unmodulated carrier, at the nominal carrier frequency.

dual-timter nanopuck nanotx picotx precision-drive rackmount-transmitter-platform timter transmitters antennas
Air Force Awards Eglin Antenna Contract

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FOR IMMEDIATE RELEASE

West Chester, OH – Eglin Air Force Base selected Quasonix in a competitive best value procurement based on performance, capabilities, and experience for TAS (Telemetry Antenna Systems), including systems of 1.8m, 2.4m, 3m, 5m, and 7.3m.

The order, for up to 19 telemetry autotracking antennas, will be delivered with a wealth of advanced features including:

  • Advanced L/S/C-band E-scan feeds
  • Improved Cassegrain design with vertex positioned feed
  • HyperTrack™ accurate digital tracking
  • Advantageous use of new SEGR and IRIG DQM and DQE
  • New interference filtering and mitigation
  • Advanced Target Simulation
  • New Ground Station Analyzer
  • iNet compatibility
  • EVTM (Ethernet Via Telemetry)
  • TDD (Time Division Duplex uplink)
  • Remote system management
  • Critical security advancements

This compilation of antenna features will move telemetry range tracking antennas to a new level and benefit a wide range of customers beyond the Air Force.

“Quasonix has already been recognized as the clear leader in the telemetry transmitter and receiver market sectors. This award is an acknowledgment by the USAF that this leadership has now carried over into the antenna sector,” said Terry Hill, president of Quasonix.

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’ advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

precision-drive antennas
We’re headed to ITC. Are you?

QUASONIX CONNECTION Volume 1, Issue 2

In this issue:

Come see us at ITC!

The International Telemetering Conference is the premier annual forum for sharing and advancing the state-of-the art in telemetry. This year’s conference is Nov. 4-8 in Glendale, AZ. And once again, Quasonix is proud to be the Diamond sponsor of the event. You can find us in booth 903, where we’ll do live demos, showcase some of our innovations (a few are highlighted below), and be available to answer your questions. 

We hope to see you there!

Ground Station Analyzer (GSA)

The Quasonix Ground Station Analyzer offers end-to-end verification and calibration of receiver ground station performance, quickly and efficiently ensuring that your entire system is mission-ready under all field conditions.

  • Automated verification and calibration. Using a reference transmitter, with no need for an external boresight source, the GSA is able to verify the Antenna, Antenna Controller, and Receiver TM system performance using an RF based test approach.
  • Flexible testing. Once calibrated, the GSA is able to synthesize RF test signals that appear to be coming from a virtual target. This allows creation of arbitrary test profiles without the need of a boresight, drone, or live target.
  • Simple monitoring. View a summary of antenna, antenna controller, and received telemetry parameters in real-time in a simple absolute and time history scrolling display.
  • Additional metrics. Perform routine measurements or calibrations that would normally be tedious and time-consuming for an operator (G/T, interference sweep, etc).

HyperTrack™

Under normal conditions, strong sources of interference near the flight path can cause your auto-tracking antenna to lock onto them, losing the target. Enter HyperTrack™. Using the Data Quality Metric (DQM) to intelligently determine validity of the received data, it rejects interference and continues to follow the target. With a high-speed, all-digital interface between receivers and the antenna control unit, you get state-of-the-art speed and accuracy of tracking. Don’t get fooled again! Come see our live demo of HyperTrack™ in action.

Adaptive Interference Mitigation (AIM)

Quasonix is incorporating new, adaptive gain distribution technology into our QTrack™ portable low-gain antennas. Similar to HyperTrack™, AIM will use real-time signal-quality metrics to optimize the antenna gains to automatically reduce the impact of interference, resulting in superior tracking under a greater variety of conditions.

Contact us or stop by our booth to learn more about how you can get robust data acquisition for your missions, with unparalleled ease.

3rd Generation RDMS™ Release 16 available

The latest release of software/firmware for our third-generation RDMS™ is here! A few of the highlights:

  • Improved Adaptive Equalizer performance:
    • Added decision-directed feedback. Handles longer multipath delays and/or delayed paths with strength comparable to the direct path.
    • Enhanced performance across all modulation types.
  • Digital Clock & Data Output controls added to the Front Panel and Browser Interface for flexible output configuration, including simultaneous output of DQE and non-DQE streams.
  • Improved Browser Interface for better control of network bandwidth usage:
    • Selectable refresh rate for the Monitor page graphics. Includes a default setting for the receiver which applies to all clients, as well as the ability for clients to temporarily override this setting when desired.
    • Additional Monitor pages with targeted graphics, e.g., eye pattern/constellation only, combiner only.
  • Significant expansion and enhancement of the RDMS API.
  • For Quasonix Status Logger users, added PCM frame lock metrics for real-time status and tracking.
  • And much more
Under conditions where multipath is severe, the new adaptive equalizer (top) clearly outperforms its predecessor (middle). The bottom receiver shows the heartbreak of unequalized multipath.

Please note that the Release 15 update is a ‘gatekeeper’ release and must be performed prior to update to Release 16 or beyond. If you have not already updated your unit to R15, please write to support@quasonix.com to request an R15 update card. Once R15 has been installed, future update can be performed utilizing any update method.

Feedback has been outstanding; keep it up! If there are features that you’d like to see let us know. To receive release notes, update cards or packages, if you have any questions about this update, or if you have suggestions for future enhancements, please contact support@quasonix.com.

Did you know?

Just like with software/firmware updates, you can add features to your receiver – Adaptive Equalization, additional operating bands, etc. – via SD card on-site. Contact sales@quasonix.com to learn more about the process and pricing.

10,000 transmitters, and counting

Stack of Quasonix transmitters showing various sizes and types developed over the years, topped by candles celebrating ten-thousand units shippedQuasonix was founded in 2002 with the purpose of filling a void in the flight-test telemetry market for a company dedicated to the development and deployment of advanced telemetry products. It all started with the invention of the SOQPSK waveform and its implementation in transmitters.

Ten-thousand delivered transmitters later – and with growing product lines that make us the only company able to provide complete end-to-end telemetry solutions – we remain committed to exceeding customer expectations with the development of user-friendly technology that continually advances the state of the art. Like the newest members of our transmitter range: the small but mighty nanoTX™ and nanoPuck™, and our dual transmitters – ideal for two-antenna applications that utilize Space-Time Coding (STC) or Frequency Diversity for the highest possible signal quality.

Here’s to the next 10,000 transmitters – and to you, our customers, who are the inspiration for our innovation.

dual-timter ground-station-analyzer nanopuck nanotx picotx qtrack rackmount-rdms-gen-3 rackmount-transmitter-platform timter transmitters antennas receivers-demodulators
Welcome to the QUASONIX CONNECTION

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QUASONIX CONNECTION Volume 1, Issue 1

In this issue:

3rd Generation RDMS™ Release 15 available now!

We are pleased to announce the latest release of software/firmware for our third-generation RDMS™. Here are just a few of the highlights:

  • Best-Channel Selector improvements, including:
    • Improved consistency across bit rates
    • Front Panel and Browser Interface enhancements to indicate BCS status including current highest quality channel
  • Tape Output (Pre-D) controls added to the Front Panel and Browser Interface to simplify feature usage
  • RDMS™ update enhancements, including the ability to perform future updates (R16+) over the network or through local media utilizing a package file provided by Quasonix
  • Improvements to Frequency Diversity operation
  • Expansion of the RDMS™ API to include more controls
  • Improved support for importing prior release receiver settings files
  • And much more

We’re listening! Our product improvement roadmap is driven by input from you. The release notes for this update contain a full list of feature improvements. Please continue to let us know what we can do to improve the product to help you get the most out of your RDMS™. To receive the release notes and SD update card, if you have any questions about this update, or if you have suggestions for future enhancements, please contact support@quasonix.com.

Preview: The RDMS™ Status Logger

Need a powerful way to analyze receiver/demodulator mission dynamics? The Quasonix RDMS™ Status Logger is the solution. View metrics in a real-time graphics display and log status to a file. With two available configurations, the RDMS™ Status Logger is versatile AND easy to set up. Custom software provides a simple, intuitive tool to manage logging sessions. What other device can access the data, timestamp them, and log them to a PC hard drive or SD card, enabling unparalleled access to metrics for post-mission analysis? None that we know of.

Up to two times a second, the RDMSTM Status Logger accesses over 70 receiver measurements – including input power, EbN0, frequency offset, timing error, probability of bit error (PBE), and STC metrics – timestamps them, and logs them to a drive. Real-time graphics give a strip-chart style view of the data. This analysis may offer powerful insight into the telemetry behavior over the course of the mission.

Features include:

  • A permanent record of all receiver settings is generated before and after logging
  • Transparent to receiver operation
  • Runs standalone (4 receivers) or on a host PC (using Serial Interface Module)
  • Remote interface to standalone status logger over Ethernet, using VNC client
  • Additional tools for telemetry analysis:
    • Bitrate detector—scans input to determine the bit rate
    • Spectral survey—surveys the input power seen by the receiver vs frequency
    • Terminal for direct chat with receiver “bricks”

Eleven-second looping GIF showing the logging of Q (BEP) on Channel 1, Channel 2, and the Combiner

The LinkView application, included with the Status Logger system, provides a post-mission report generator, interactive charts, and data management for the status logger data. As the saying goes, “That which is measured, improves. That which is measured and reported improves exponentially.”

Screen capture of the LinkView application, showing a clean layout of the Session Manager and the TM Link Overview screen

To learn more, check out the status logger product page or contact us at sales@quasonix.com.

Join us at DATT Summit

DATT Summit® 2018 is the place to connect with industry leaders within aerospace and defense and to expand your education to advance your career. And it’s right around the corner – June 4-7 in Orlando Florida. Check out the DATT Summit website to learn more (https://www.dattsummit.com), and visit us at booth 401!

Spread the word

Do you have colleagues who could benefit from this newsletter but haven’t signed up? Forward them a copy. It just takes a minute to subscribe at www.quasonix.com/quasonixconnection.

We’d love to hear from you

This newsletter is for you. What topics would you like us to cover in future issues? Please send your comments and suggestions to our editor.

rackmount-rdms-gen-3 status-logger receivers-demodulators test-equipment
Maximal Ratio Combiner Simulation


Simulation of maximal-ratio diversity combining, showing how it phase aligns and coherently sums two signals but non-coherently sums their noise, resulting in up to 3 dB improvement in signal-to-noise ratio.

[Note: This video is included in Day 2 of TM Smorgasbord training.]

PCMFM Adaptive Equalization Demo (Training)


Original, received (three-ray), and equalized PCMFM signal.

[Note: This video is included in Day 2 of TM Smorgasbord training.]

SOQPSK Adaptive Equalization Demo (Training)


Original, received (three-ray), and equalized SOQPSK signal.

[Note: This video is included in Day 2 of TM Smorgasbord training.]

ISO 9001 Upgrade Underscores Customer Commitment

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FOR IMMEDIATE RELEASE

West Chester, OH – On February 27, 2017, Quasonix, Inc. announced receipt of ISO 9001:2015 certification. ISO 9001 is a quality management standard recognized around the world with the objective of improving product quality and customer focus through process improvement.

Terry Hill, president of Quasonix, stated that: “Quasonix has always used design, manufacturing, and test procedures that ensured our customers got the quality they expected and needed. The upgrade to ISO 9001:2015 increases customer focus and puts additional emphasis on sensitivity to the markets we serve. It tells our customers that we’re committed to attaining even higher levels of quality and performance.”

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’ advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

accessories compact-rdms-gen-3 dms-demodualtor dual-timter encoder-decoder ground-station-analyzer nanopuck nanotx node-controller picotx precision-drive qtrack rackmount-rdms-gen-3 rackmount-transmitter-platform receiver-analyzer-gen-2 sim status-logger timter receivers-demodulators transmitters ethernet-via-telemetry networking antennas test-equipment
Quasonix Acquires TelAntCo, Adds Antennas to Product Line

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FOR IMMEDIATE RELEASE

West Chester, OH – Quasonix, Inc. announced today that it has acquired 100% of the operating assets of the Telemetry Antenna Company (TelAntCo), based in Moorpark, CA. 

Under Quasonix ownership, the TelAntCo engineering, manufacturing, customer support, and management team is being preserved intact, and operations are continuing without interruption in TelAntCo’s existing Moorpark facility. Going forward, existing TelAntCo products will be re-branded and marketed under the familiar blue and red Quasonix logo. Systems already delivered by TelAntCo will continue to be serviced and fully warranted by Quasonix, utilizing the same personnel who built the system. 

By applying the engineering and marketing resources of Quasonix, the existing TelAntCo product line will be expanded to include a number of innovative new features. Capitalizing on tighter integration between antennas and receivers, these new products will provide substantial gains in ground station performance and reliability, while simplifying operation and lowering system cost. 

Terry Hill, president of Quasonix, stated that, “Quasonix has become the leading provider of telemetry transmitters and receivers, and joining forces with TelAntCo creates an even more integrated product line. Combining the personnel and products of Quasonix and TelAntCo will yield even higher levels of performance and greater value for our customers.” 

Paul Radcliffe, president of TelAntCo echoed this sentiment: “The synergy between TelAntCo and Quasonix is just so strong; we couldn’t pass up this opportunity to make something that’s much more than the sum of the parts. Our customers are going to be very happy with the system-level solutions that our combined resources can deliver.” 

ABOUT QUASONIX, INC.

Quasonix designs, develops, and manufactures high performance aeronautical telemetry systems and is a recognized industry leader for spectrally efficient modulations such as SOQPSK and Multi-h CPM. Quasonix’ advanced product line extends from the air to the ground and includes antennas, transmitters, receivers, and demodulators with integral bit synchronizers. Quasonix is… Reinventing Telemetry™

For more information, please contact Terry Hill at sales@quasonix.com or 513-942-1287.

accessories compact-rdms-gen-3 dms-demodualtor dual-timter encoder-decoder ground-station-analyzer nanopuck nanotx node-controller picotx precision-drive qtrack rackmount-rdms-gen-3 rackmount-transmitter-platform receiver-analyzer-gen-2 sim status-logger timter receivers-demodulators transmitters ethernet-via-telemetry networking antennas test-equipment
Manuals

User Manuals and Operating Instructions

TypeTitleUpdatedRevisionDescriptionKeywordshf:tax:product_categoryhf:tax:resources_info_type

QSight™ Boresight Manual2023.08.221.0

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

qsight-boresight test-equipmentproduct-user-manual manuals

TMoIP Processor Manual2023.04.281.0.3

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

tmoip-processor networkingproduct-user-manual manuals

RDMS™ Receiver Scripting Guide2023.01.251.0

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

boot
command
execute
modes
operation
recording
script
scripting

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

HyperTrack™ Software Manual2022.12.151.0

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

hypertrack antennasproduct-user-manual manuals

QTrack™ Antenna Manual (Draft)2022.10.17Preliminary 0.15

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

qtrack antennasproduct-user-manual manuals

RDMS™ Receiver Telnet and Serial Control Protocol Guide2022.12.121.0.5

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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

RDMS™ Compact Receiver-Combiner Manual (Gen 3, R19)2023.12.081.0.4

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

compact-receiver-combiner receivers-demodulatorsproduct-user-manual manuals

HyperTrack™ Antenna Periodic Maintenance Log2022.06.10

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

hypertrack antennasproduct-technical-guide manuals

RDMS™ Receiver Bit Error Rate Testing Guide2022.04.241.0.1

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

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

Transmitter SMA Replacement Guide2022.02.011.0

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

dual-timter timter transmittersproduct-technical-guide manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R19)2023.12.083.7.12

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

HyperTrack™ Antenna Local Control Pendant Manual2021.08.172.0.1

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

hypertrack antennasproduct-user-manual manuals

DQM and RDMS™ Troubleshooting Guide2021.03.28

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

TIMTER™ Dual Transmitter Manual, Firmware v22023.11.221.5.14

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

dual-timter transmittersproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R18)2020.11.103.6

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R17)2019.10.173.5.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

Receiver and Transmitter Low-Density Parity Check Guide2024.01.261.1.1

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

compact-rdms-gen-3 dual-timter nanotx rackmount-rdms-gen-3 receiver-analyzer-gen-2 timter receivers-demodulators transmitters test-equipmentproduct-technical-guide manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R9 / R10)2016.10.252.5.8

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R11)2016.12.232.6.3

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R12 / R13)2017.09.072.8.3

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R14)2018.02.103.0.5

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R15)2018.06.123.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

EVTM Encoder/Decoder Manual2022.11.181.1.4

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

encoder-decoder ethernet-via-telemetry networkingproduct-user-manual manuals

Transmitter Switchbox Manual (Gen 1)2019.08.051.4.1

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

switchbox-gen-1 accessoriesproduct-user-manual manuals

Receiver and Transmitter Handheld Programmer Manual (Gen 1)2019.08.052.1.1

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

handheld-programmer accessoriesproduct-user-manual manuals

Transmitter Handheld Programmer Manual (Gen 2)2021.02.041.0.2

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

handheld-programmer accessoriesproduct-user-manual manuals

Phase Noise Compensation Training2015.06.11

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

compact-rdms-gen-2 compact-rdms-gen-3 dms-demodualtor rackmount-rdms-gen-2 rackmount-rdms-gen-3 receivers-demodulatorsproduct-training manuals

Receiver Analyzer Manual (Gen 2)2022.03.302.5.9

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

receiver-analyzer-gen-2 test-equipmentproduct-user-manual manuals

Receiver Analyzer 101 Training (Gen 2)2015.07.23

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

receiver-analyzer-gen-2 test-equipmentproduct-training manuals

RDMS™ Rackmount Receiver Manual (Gen 2)2019.08.053.5.1

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

rackmount-rdms-gen-2 receivers-demodulatorsproduct-user-manual manuals

DMS™ Demodulator Manual2019.08.051.4.2

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

dms-demodualtor receivers-demodulatorsproduct-user-manual manuals

RDMS™ Compact Receiver Manual (Gen 3)2023.12.081.2.20

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

compact-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Status Logger Manual2019.08.052.1.1

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

sim status-logger test-equipmentproduct-user-manual manuals

RDMS™ Rackmount Receiver Tape Output Configuration Guide2018.07.231.1.1

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

RDMS™ Rackmount Receiver Firmware Update Guide (Gen 3)2021.11.011.2

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-technical-guide manuals

Transmitter RF Troubleshooting Guide2019.07.251.2

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

Transmitter Airborne IntelliCool™ Heat Sink 2×3 onto 4×3 Installation Guide2018.10.26

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

transmitter-airborne-intellicool heat-sink accessoriesproduct-technical-guide manuals

Transmitter Overtemp Control Guide2018.10.261.0

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

TIMTER™ Transmitter Manual2024.01.303.9.18

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

timter transmittersproduct-user-manual manuals

Rackmount Transmitter Manual2019.08.051.2.1

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

rackmount-transmitter-platform transmittersproduct-user-manual manuals

TIMTER™ Dual Transmitter Manual, Firmware v12023.11.221.6.16

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

dual-timter transmittersproduct-user-manual manuals

Transmitter Binary Protocol Tester Manual2021.02.041.0.4

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-user-manual manuals

Transmitter Binary Protocol Manual2021.02.034.0.3

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-user-manual manuals

IRIG 106-13, Appendix N Interpretation2020.07.141.2

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

dual-timter nanopuck nanotx picotx timter transmittersproduct-technical-guide manuals

Antenna Control Unit Manual2021.02.041.5.2

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

precision-drive qtrack antennasproduct-user-manual manuals

TIMTER™ Dual Transmitter Manual (Legacy)2022.01.311.3.5

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

dual-timter transmittersproduct-user-manual manuals

GMLRS Transmitter Manual2023.11.271.3.18

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

timter transmittersproduct-user-manual manuals

NanoTX™ Transmitter Manual2023.04.283.4.13

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

nanopuck nanotx transmittersproduct-user-manual manuals

Transmitter Switchbox Manual (Gen 2)2021.02.041.3.3

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

switchbox-gen-2 accessoriesproduct-user-manual manuals

RDMS™ Compact Receiver Manual (Gen 2)2019.08.052.2.1

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

compact-rdms-gen-2 receivers-demodulatorsproduct-user-manual manuals

RDMS™ Rackmount Receiver Manual (Gen 3, R16)2019.08.053.4.8

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

rackmount-rdms-gen-3 receivers-demodulatorsproduct-user-manual manuals

A Special Note About Rackmount Receivers

Rackmount units produced or updated from late 2016 to present have the manual specific to the receiver and its software version installed in the unit itself, accessible via the receiver’s web server. When feasible, this is the preferred method for finding information about your receiver. Just navigate to the HELP page in the remote client (bottom of the page). When that is not possible, you can use the archive below to find user manuals for compact receivers, compact receiver-combiners, and rackmount receivers by product generation and, for third-generation products, by system version.

The latest system software for Gen 3 receivers is Release 19.3. Quasonix recommends that you update to this version. Software/firmware updates can be added to your receiver on-site via SD card or Network Update. The same applies to certain feature upgrades such Adaptive Equalization and additional operating bands. Read this update guide to learn more about the process, or contact us at sales@quasonix.com regarding pricing of feature upgrades. Software/firmware updates are always free.

Receiver Manual Archive

Gen 3 Compact Receiver

Gen 3 Compact Receiver-Combiner

Gen 3 Rackmount Receiver

Gen 2 Compact Receiver

Gen 2 Rackmount Receiver

Software Downloads

TypeTitleVersionDownloadDescriptionUpdatedhf:tax:product_category

Transmitter Get Info Software1.004

<1 MB

Free Quasonix utility that collects diagnostic information from a transmitter via a serial connection to a computer.

2019.11.19dual-timter nanopuck nanotx picotx timter transmitters

Receiver and Transmitter Terminal Software1.9b

<1 MB

A simple serial port (COM) terminal emulation program used for serial communication with Quasonix products.

2015.06.11compact-rdms-gen-2 compact-rdms-gen-3 dual-timter nanopuck nanotx picotx timter receivers-demodulators transmitters

Transmitter Binary Protocol Tester Software1.029

<1 MB

Software (bintest.exe) for testing the binary protocol of Quasonix telemetry transmitters connected to PC via serial port.

2019.04.12dual-timter nanopuck nanotx picotx timter transmitters

HyperTrack™ Antenna Client Installer Package1.3.2

22 MB

This zipped download includes the HyperTrack™ client installer package (.msi) and the corresponding release notes (.txt).

2022.08.09hypertrack antennas

HyperTrack™ Antenna Firmware Disk Image1.3.2

153 MB

This zipped download includes the HyperTrack™ firmware disk image (.img) and the corresponding release notes (.txt).

2022.08.09hypertrack antennas
Drawings

STEP Models, Drawings, and Pinout Diagrams

TypeTitleDrawing TypeApplicable Code(s)Supported Product Codes (for Accessories)hf:tax:resources_info_type

Transmitter Pinout 02Pinout diagram02pinout-diagram drawing

Transmitter Pinout 78Pinout diagram78pinout-diagram drawing

Transmitter Pinout N3Pinout diagramN3pinout-diagram drawing

Transmitter Pinout NDPinout diagramNDpinout-diagram drawing

Transmitter Pinout A37Pinout diagramA37pinout-diagram drawing

Transmitter Pinout P1Pinout diagramP1pinout-diagram drawing

Transmitter Pinout N9Pinout diagramN9pinout-diagram drawing

Transmitter Pinout N8Pinout diagramN8pinout-diagram drawing

Transmitter Pinout N7Pinout diagramN7pinout-diagram drawing

Transmitter Pinout N2Pinout diagramN2pinout-diagram drawing

Transmitter Pinout N1Pinout diagramN1pinout-diagram drawing

Transmitter Pinout D4Pinout diagramD4pinout-diagram drawing

Transmitter Pinout 98Pinout diagram98pinout-diagram drawing

Transmitter Pinout 96Pinout diagram96pinout-diagram drawing

Transmitter Pinout 94Pinout diagram94pinout-diagram drawing

Transmitter Pinout 92Pinout diagram92pinout-diagram drawing

Transmitter Pinout 90Pinout diagram90pinout-diagram drawing

Transmitter Pinout 88Pinout diagram88pinout-diagram drawing

Transmitter Pinout 86Pinout diagram86pinout-diagram drawing

Transmitter Pinout 80Pinout diagram80pinout-diagram drawing

Transmitter Pinout 76Pinout diagram76pinout-diagram drawing

Transmitter Pinout 74Pinout diagram74pinout-diagram drawing

Transmitter Pinout 70Pinout diagram70pinout-diagram drawing

Transmitter Pinout 66Pinout diagram66pinout-diagram drawing

Transmitter Pinout 64Pinout diagram64pinout-diagram drawing

Transmitter Pinout 62Pinout diagram62pinout-diagram drawing

Transmitter Pinout 60Pinout diagram60pinout-diagram drawing

Transmitter Pinout 59Pinout diagram59pinout-diagram drawing

Transmitter Pinout 58Pinout diagram58pinout-diagram drawing

Transmitter Pinout 57Pinout diagram57pinout-diagram drawing

Transmitter Pinout 55Pinout diagram55pinout-diagram drawing

Transmitter Pinout 54Pinout diagram54pinout-diagram drawing

Transmitter Pinout 53Pinout diagram53pinout-diagram drawing

Transmitter Pinout 50Pinout diagram50pinout-diagram drawing

Transmitter Pinout 48Pinout diagram48pinout-diagram drawing

Transmitter Pinout 46Pinout diagram46pinout-diagram drawing

Transmitter Pinout 44Pinout diagram44pinout-diagram drawing

Transmitter Pinout 42Pinout diagram42pinout-diagram drawing

Transmitter Pinout 40Pinout diagram40pinout-diagram drawing

Transmitter Pinout 36Pinout diagram36pinout-diagram drawing

Transmitter Pinout 34Pinout diagram34pinout-diagram drawing

Transmitter Pinout 32Pinout diagram32pinout-diagram drawing

Transmitter Pinout 30Pinout diagram30pinout-diagram drawing

Transmitter Pinout 28Pinout diagram28pinout-diagram drawing

Transmitter Pinout 26Pinout diagram26pinout-diagram drawing

Transmitter Pinout 24Pinout diagram24pinout-diagram drawing

Transmitter Pinout 22Pinout diagram22pinout-diagram drawing

Transmitter Pinout 20Pinout diagram20pinout-diagram drawing

Transmitter Pinout 19Pinout diagram19pinout-diagram drawing

Transmitter Pinout 18Pinout diagram18pinout-diagram drawing

Transmitter Pinout 17Pinout diagram17pinout-diagram drawing

Transmitter Pinout 16Pinout diagram16pinout-diagram drawing

Transmitter Pinout 15Pinout diagram15pinout-diagram drawing

Transmitter Pinout 14Pinout diagram14pinout-diagram drawing

Transmitter Pinout 13Pinout diagram13pinout-diagram drawing

Transmitter Pinout 12Pinout diagram12pinout-diagram drawing

Transmitter Pinout 11Pinout diagram11pinout-diagram drawing

Transmitter Pinout 10Pinout diagram10pinout-diagram drawing

Transmitter Pinout 09Pinout diagram09pinout-diagram drawing

Transmitter Pinout 08Pinout diagram08pinout-diagram drawing

Transmitter Pinout 07Pinout diagram07pinout-diagram drawing

Transmitter Pinout 06Pinout diagram06pinout-diagram drawing

Transmitter Pinout 05Pinout diagram05pinout-diagram drawing

Transmitter Pinout 04Pinout diagram04pinout-diagram drawing

Transmitter Pinout 03Pinout diagram03pinout-diagram drawing

Transmitter Pinout N4Pinout diagramN4pinout-diagram drawing

Transmitter Pinout N6Pinout diagramN6pinout-diagram drawing

Transmitter Package 21AA DrawingMechanical drawing21AA, 21Amechanical-drawing drawing

Transmitter Package 07AD Model (< 1 MB Download)STEP model07AD, 6Qstep-model drawing

Transmitter Package 00AA DrawingMechanical drawing00AAmechanical-drawing drawing

Transmitter Package 01AA DrawingMechanical drawing01AA, 1Amechanical-drawing drawing

Transmitter Package 01AB DrawingMechanical drawing01AB, 1Bmechanical-drawing drawing

Transmitter Package 01AC DrawingMechanical drawing01AC, 1Cmechanical-drawing drawing

Transmitter Package 01AD DrawingMechanical drawing01AD, 1Dmechanical-drawing drawing

Transmitter Package 01PB DrawingMechanical drawing01PB, 1Fmechanical-drawing drawing

Transmitter Package 01PD DrawingMechanical drawing01PD, 1Kmechanical-drawing drawing

Transmitter Package 01PE DrawingMechanical drawing01PE, 1Lmechanical-drawing drawing

Transmitter Package 01PG DrawingMechanical drawing01PGmechanical-drawing drawing

Transmitter Package 01PH DrawingMechanical drawing01PHmechanical-drawing drawing

Transmitter Package 02AA DrawingMechanical drawing02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2Tmechanical-drawing drawing

Transmitter Package 02AB DrawingMechanical drawing02AB, 2D, 2F, 2J, 2K, 2M, 2Pmechanical-drawing drawing

Transmitter Package 03AA DrawingMechanical drawing03AA, 3Amechanical-drawing drawing

Transmitter Package 03AB DrawingMechanical drawing03ABmechanical-drawing drawing

Transmitter Package 04AA DrawingMechanical drawing04AA, 4C, 4Tmechanical-drawing drawing

Transmitter Package 04AB DrawingMechanical drawing04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4Smechanical-drawing drawing

Transmitter Package 04AC DrawingMechanical drawing04AC, 4Jmechanical-drawing drawing

Transmitter Package 04AD DrawingMechanical drawing04AD, 4E, 4Rmechanical-drawing drawing

Transmitter Package 04AH DrawingMechanical drawing04AHmechanical-drawing drawing

Transmitter Package 05AA DrawingMechanical drawing05AA, 5D, 5Hmechanical-drawing drawing

Transmitter Package 05AB DrawingMechanical drawing05AB, 5A, 5E, 5G, 5Jmechanical-drawing drawing

Transmitter Package 05AC DrawingMechanical drawing05AC, 5Cmechanical-drawing drawing

Transmitter Package 05AD DrawingMechanical drawing05AD, 5Bmechanical-drawing drawing

Transmitter Package 06AA DrawingMechanical drawing06AA, 6Tmechanical-drawing drawing

Transmitter Package 06AB DrawingMechanical drawing06AB, 6Wmechanical-drawing drawing

Transmitter Package 06AC DrawingMechanical drawing06AC, 6Dmechanical-drawing drawing

Transmitter Package 06AD DrawingMechanical drawing06AD, 6Nmechanical-drawing drawing

Transmitter Package 06AE DrawingMechanical drawing06AE, 6Hmechanical-drawing drawing

Transmitter Package 06AF DrawingMechanical drawing06AF, 6Jmechanical-drawing drawing

Transmitter Package 06AG DrawingMechanical drawing06AGmechanical-drawing drawing

Transmitter Package 06AH DrawingMechanical drawing06AHmechanical-drawing drawing

Transmitter Package 06AJ DrawingMechanical drawing06AJ, 6Bmechanical-drawing drawing

Transmitter Package 07AA DrawingMechanical drawing07AA, 6Qmechanical-drawing drawing

Transmitter Package 07AB DrawingMechanical drawing07AB, 6Fmechanical-drawing drawing

Transmitter Package 07AC DrawingMechanical drawing07AC, 6Emechanical-drawing drawing

Transmitter Package 07AD DrawingMechanical drawing07AD, 6L, 6M, 6P, 6Smechanical-drawing drawing

Transmitter Package 07AE DrawingMechanical drawing07AE, 6G, 6Vmechanical-drawing drawing

Transmitter Package 07AF DrawingMechanical drawing07AFmechanical-drawing drawing

Transmitter Package 07AG DrawingMechanical drawing07AGmechanical-drawing drawing

Transmitter Package 07AH DrawingMechanical drawing07AHmechanical-drawing drawing

Transmitter Package 07AJ DrawingMechanical drawing07AJmechanical-drawing drawing

Transmitter Package 07AK DrawingMechanical drawing07AKmechanical-drawing drawing

Transmitter Package 07AL DrawingMechanical drawing07ALmechanical-drawing drawing

Transmitter Package 07AM DrawingMechanical drawing07AMmechanical-drawing drawing

Transmitter Package 07AN DrawingMechanical drawing07ANmechanical-drawing drawing

Transmitter Package 07BD DrawingMechanical drawing07BDmechanical-drawing drawing

Transmitter Package 08AA DrawingMechanical drawing08AA, 7Bmechanical-drawing drawing

Transmitter Package 08AB DrawingMechanical drawing08ABmechanical-drawing drawing

Transmitter Package 08AC DrawingMechanical drawing08AC, 7Amechanical-drawing drawing

Transmitter Package 08AD DrawingMechanical drawing08ADmechanical-drawing drawing

Transmitter Package 08AE DrawingMechanical drawing08AE, 8Bmechanical-drawing drawing

Transmitter Package 08AF DrawingMechanical drawing08AFmechanical-drawing drawing

Transmitter Package 08AG DrawingMechanical drawing08AGmechanical-drawing drawing

Transmitter Package 08AH DrawingMechanical drawing08AHmechanical-drawing drawing

Transmitter Package 08AJ DrawingMechanical drawing08AJ, 11Bmechanical-drawing drawing

Transmitter Package 08AM DrawingMechanical drawing08AMmechanical-drawing drawing

Transmitter Package 08FM DrawingMechanical drawing08FMmechanical-drawing drawing

Transmitter Package 09AA DrawingMechanical drawing09AA, 9Bmechanical-drawing drawing

Transmitter Package 09AK DrawingMechanical drawing09AKmechanical-drawing drawing

Transmitter Package 09AP DrawingMechanical drawing09APmechanical-drawing drawing

Transmitter Package 14AF DrawingMechanical drawing14AFmechanical-drawing drawing

Transmitter Package 14AB DrawingMechanical drawing14AB, 14Bmechanical-drawing drawing

Transmitter Package 14AC DrawingMechanical drawing14AC, 14Cmechanical-drawing drawing

Transmitter Package 14AD DrawingMechanical drawing14AD, 14Dmechanical-drawing drawing

Transmitter Package 17AB DrawingMechanical drawing17AB, 17Bmechanical-drawing drawing

Transmitter Package 18AB DrawingMechanical drawing18ABmechanical-drawing drawing

Transmitter Package 18AC DrawingMechanical drawing18ACmechanical-drawing drawing

Transmitter Package 18AD DrawingMechanical drawing18ADmechanical-drawing drawing

Transmitter Package 18AF DrawingMechanical drawing18AFmechanical-drawing drawing

Transmitter Package 18AG DrawingMechanical drawing18AGmechanical-drawing drawing

Transmitter Package 24AA DrawingMechanical drawing24AAmechanical-drawing drawing

Transmitter Package 24AE DrawingMechanical drawing24AEmechanical-drawing drawing

Transmitter Package 01AB Model (< 1 MB Download)STEP model01AB, 1Bstep-model drawing

Transmitter Package 01EP Model (< 1 MB Download)STEP model01EPstep-model drawing

Transmitter Package 02AA Model (< 1 MB Download)STEP model02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2Tstep-model drawing

Transmitter Package 04AB Model (< 1 MB Download)STEP model04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4Sstep-model drawing

Transmitter Package 06AE Model (< 1 MB Download)STEP model06AE, 6Hstep-model drawing

Transmitter Package 07AH Model (<1 MB Download)STEP model07AHstep-model drawing

Transmitter Package 07BD Model (< 1 MB Download)STEP model07BDstep-model drawing

Transmitter Package 08AC Model (< 1 MB Download)STEP model08AC, 7Astep-model drawing

Transmitter Package 09AK Model (< 1 MB Download)STEP model09AKstep-model drawing

Transmitter Package 09BD Model (< 1 MB Download)STEP model09BDstep-model drawing

Transmitter Package 18AB Model (< 1 MB Download)STEP model18ABstep-model drawing

Transmitter Package 18AD Model (< 1 MB Download)STEP model18ADstep-model drawing

Transmitter Package 18AF Model (< 1 MB Download)STEP model18AFstep-model drawing

Transmitter Package 24AE Model (1 MB Download)STEP model24AEstep-model drawing

Transmitter Package 24AF Model (1 MB Download)STEP model24AFstep-model drawing

Transmitter Package 24AJ DrawingMechanical drawing24AJmechanical-drawing drawing

Transmitter Package 24AJ Model (1 MB Download)STEP model24AJstep-model drawing

Transmitter Pinout 61Pinout diagram61pinout-diagram drawing

Transmitter Pinout 25Pinout diagram25pinout-diagram drawing

Transmitter Package 05AE DrawingMechanical drawing05AEmechanical-drawing drawing

Transmitter Package 05AF DrawingMechanical drawing05AFmechanical-drawing drawing

Transmitter Package 05AG DrawingMechanical drawing05AGmechanical-drawing drawing

Transmitter Package 05AH DrawingMechanical drawing05AHmechanical-drawing drawing

Transmitter Package 05AE Model (< 1 MB Download)STEP model05AEstep-model drawing

Transmitter Package 05AF Model (< 1 MB Download)STEP model05AFstep-model drawing

Transmitter Package 05AG Model (1 MB Download)STEP model05AGstep-model drawing

Transmitter Package 05AH Model (< 1 MB Download)STEP model05AHstep-model drawing

EVTM 1U Rackmount 1-Channel Encoder-Decoder – Model (10 MB Download)STEP modelQSX-EVTM-1URX-1CHstep-model drawing

Rackmount Receiver 1U – Model (2 MB Download)STEP modelQSX-RDMS-1R1D, QSX-RDMS-2R1D, QSX-RDMS-3R1Dstep-model drawing

Rackmount Receiver 1U – DrawingMechanical drawingQSX-RDMS-1R1D, QSX-RDMS-2R1D, QSX-RDMS-3R1Dmechanical-drawing drawing

Transmitter Package 24AG Model (1 MB Download)STEP model24AGstep-model drawing

Transmitter Package 24AG DrawingMechanical drawing24AGmechanical-drawing drawing

Transmitter Package 24AL Model (1 MB Download)STEP model24ALstep-model drawing

Transmitter Package 24AL DrawingMechanical drawing24ALmechanical-drawing drawing

EVTM Airborne Encoder-Decoder – Model (< 1 MB Download)STEP modelQSX-EVTM-SED-AT, QSX-EVTM-SED-ARstep-model drawing

Compact Receiver 1 C&D Set – Model (< 1 MB Download)STEP modelQSX-RDMS-1A15, QSX-RDMS-1B15, QSX-RDMS-1C15, QSX-RDMS-1D15step-model drawing

Compact Receiver 3 C&D Sets – Model (2 MB Download)STEP modelQSX-RDMS-1A37, QSX-RDMS-1B37, QSX-RDMS-1C37, QSX-RDMS-1D37step-model drawing

Compact Receiver 1 C&D Set With Ethernet Payload – Model (1 MB Download)STEP modelQSX-RDMS-1E15, QSX-RDMS-1F15step-model drawing

Transmitter Package 01AA Model (<1 MB Download)STEP model01AA, 1Astep-model drawing

Transmitter Package 01AC Model (2 MB Download)STEP model01AC, 1Cstep-model drawing

Transmitter Package 01AD Model (<1 MB Download)STEP model01AD, 1Dstep-model drawing

Transmitter Package 01PB Model (2 MB Download)STEP model01PB, 1Fstep-model drawing

Transmitter Package 01PD Model (2 MB Download)STEP model01PD, 1Kstep-model drawing

Transmitter Package 01PE Model (<1 MB Download)STEP model01PE, 1Lstep-model drawing

Transmitter Package 01PG Model (4 MB Download)STEP model01PGstep-model drawing

Transmitter Package 01PH Model (4 MB Download)STEP model01PHstep-model drawing

Transmitter Package 02AB Model (<1 MB Download)STEP model02AB, 2D, 2F, 2J, 2K, 2M, 2Pstep-model drawing

Transmitter Package 03AA Model (<1 MB Download)STEP model03AA, 3Astep-model drawing

Transmitter Package 04AA Model (<1 MB Download)STEP model04AA, 4C, 4Tstep-model drawing

Transmitter Package 04AC Model (<1 MB Download)STEP model04AC, 4Jstep-model drawing

Transmitter Package 04AD Model (<1 MB Download)STEP model04AD, 4E, 4Rstep-model drawing

Transmitter Package 05AA Model (<1 MB Download)STEP model05AA, 5D, 5Hstep-model drawing

Transmitter Package 05AB Model (<1 MB Download)STEP model05AB, 5A, 5E, 5G, 5Jstep-model drawing

Transmitter Package 05AC Model (<1 MB Download)STEP model05AC, 5Cstep-model drawing

Transmitter Package 05AD Model (<1 MB Download)STEP model05AD, 5Bstep-model drawing

Transmitter Package 06AA Model (<1 MB Download)STEP model06AA, 6Tstep-model drawing

Transmitter Package 06AB Model (<1 MB Download)STEP model06AB, 6Wstep-model drawing

Transmitter Package 06AC Model (<1 MB Download)STEP model06AC, 6Dstep-model drawing

Transmitter Package 06AD Model (<1 MB Download)STEP model06AD, 6Nstep-model drawing

Transmitter Package 06AF Model (<1 MB Download)STEP model06AF, 6Jstep-model drawing

Transmitter Package 06AG Model (2 MB Download)STEP model06AGstep-model drawing

Transmitter Package 07AA Model (<1 MB Download)STEP model07AA, 6Qstep-model drawing

Transmitter Package 07AB Model (<1 MB Download)STEP model07AB, 6Fstep-model drawing

Transmitter Package 07AC Model (<1 MB Download)STEP model07AC, 6Estep-model drawing

Transmitter Package 07AE Model (<1 MB Download)STEP model07AE, 6G, 6Vstep-model drawing

Transmitter Package 07AF Model (<1 MB Download)STEP model07AFstep-model drawing

Transmitter Package 07AG Model (<1 MB Download)STEP model07AGstep-model drawing

Transmitter Package 07AJ Model (<1 MB Download)STEP model07AJstep-model drawing

Transmitter Package 08AA Model (3 MB Download)STEP model08AA, 7Bstep-model drawing

Transmitter Package 08AB Model (<1 MB Download)STEP model08ABstep-model drawing

Transmitter Package 08AD Model (3 MB Download)STEP model08ADstep-model drawing

Transmitter Package 08AE Model (<1 MB Download)STEP model08AE, 8Bstep-model drawing

Transmitter Package 08AF Model (<1 MB Download)STEP model08AFstep-model drawing

Transmitter Package 08AG Model (<1 MB Download)STEP model08AGstep-model drawing

Transmitter Package 08AH Model (2 MB Download)STEP model08AHstep-model drawing

Transmitter Package 08AR Model (<1 MB Download)STEP model08AR, 8Astep-model drawing

Transmitter Package 09AA Model (<1 MB Download)STEP model09AA, 9Bstep-model drawing

Transmitter Package 14AB Model (<1 MB Download)STEP model14AB, 14Bstep-model drawing

Transmitter Package 14AC Model (3 MB Download)STEP model14AC, 14Cstep-model drawing

Transmitter Package 14AD Model (1 MB Download)STEP model14AD, 14Dstep-model drawing

Transmitter Pinout S2Pinout diagramS2pinout-diagram drawing

Transmitter Pinout NLPinout diagramNLpinout-diagram drawing

Transmitter Package 04AJ Model (<1 MB Download)STEP model04AJstep-model drawing

Transmitter Package 04AK Model (<1 MB Download)STEP model04AKstep-model drawing

Transmitter Package 04AL Model (<1 MB Download)STEP model04ALstep-model drawing

Transmitter Package 04AM Model (<1 MB Download)STEP model04AMstep-model drawing

Transmitter Package 08AS Model (<1 MB Download)STEP model08ASstep-model drawing

Transmitter Package 04AJ DrawingMechanical drawing04AJmechanical-drawing drawing

Transmitter Package 04AK DrawingMechanical drawing04AKmechanical-drawing drawing

Transmitter Package 04AL DrawingMechanical drawing04ALmechanical-drawing drawing

Transmitter Package 04AM DrawingMechanical drawing04AMmechanical-drawing drawing

Transmitter Package 08AS DrawingMechanical drawing08ASmechanical-drawing drawing

PDF

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – DrawingMechanical drawingAll TIMTER™ and all 2" x 3" Dual TIMTER™ transmitters, QSX-AC-32-HS-28V-SP, ACC010

02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2T, 02AB, 2D, 2F, 2J, 2K, 2M, 2P, 04AA, 4C, 4T, 04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4S, 04AC, 4J, 04AD, 4E, 4R, 04AG, 04AH, 05AE, 05AF, 05AG, 05AH, 06AB, 6W, 06AE, 6H, 06AJ, 6B, 06AM, 07AC, 6E, 07AH, 07AN, 07AQ, 07AS, 07AW, 07AX, 07AY, 07AZ, 07BA, 07BB, 07BC, 07BD, 07BE, 07BF, 07BG, 07BH, 07BJ, 07BK, 07BL, 07BM, 08AB, 08AN, 08AS, 08AT, 08AU, 08AV, 08AW, 08AX, 09AA, 9B, 09AK, 09AM, 18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

mechanical-drawing drawing

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – Exploded View – DrawingMechanical drawingAll TIMTER™ and all 2" x 3" Dual TIMTER™ transmitters, QSX-AC-32-HS-28V-SP, ACC010

02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2T, 02AB, 2D, 2F, 2J, 2K, 2M, 2P, 04AA, 4C, 4T, 04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4S, 04AC, 4J, 04AD, 4E, 4R, 04AG, 04AH, 05AE, 05AF, 05AG, 05AH, 06AB, 6W, 06AE, 6H, 06AJ, 6B, 06AM, 07AC, 6E, 07AH, 07AN, 07AQ, 07AS, 07AW, 07AX, 07AY, 07AZ, 07BA, 07BB, 07BC, 07BD, 07BE, 07BF, 07BG, 07BH, 07BJ, 07BK, 07BL, 07BM, 08AB, 08AN, 08AS, 08AT, 08AU, 08AV, 08AW, 08AX, 09AA, 9B, 09AK, 09AM, 18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

mechanical-drawing drawing

Airborne IntelliCool™ Heat Sink for 2″ x 3″ Transmitters – Model (1 MB Download)STEP modelAll TIMTER™ and all 2" x 3" Dual TIMTER™ transmitters, QSX-AC-32-HS-28V-SP, ACC010

02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2T, 02AB, 2D, 2F, 2J, 2K, 2M, 2P, 04AA, 4C, 4T, 04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4S, 04AC, 4J, 04AD, 4E, 4R, 04AG, 04AH, 05AE, 05AF, 05AG, 05AH, 06AB, 6W, 06AE, 6H, 06AJ, 6B, 06AM, 07AC, 6E, 07AH, 07AN, 07AQ, 07AS, 07AW, 07AX, 07AY, 07AZ, 07BA, 07BB, 07BC, 07BD, 07BE, 07BF, 07BG, 07BH, 07BJ, 07BK, 07BL, 07BM, 08AB, 08AN, 08AS, 08AT, 08AU, 08AV, 08AW, 08AX, 09AA, 9B, 09AK, 09AM, 18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

step-model drawing

RDMS™ Status Logger Model (6 MB Download)STEP modelQSX-RXSL-RM1C-IC, QSX-RXSL-RM2C-IC, QSX-RXSL-RM3C-IC, QSX-RXSL-RM4C-ICstep-model drawing

RDMS™ Status Logger DrawingMechanical drawingQSX-RXSL-RM1C-IC, QSX-RXSL-RM2C-IC, QSX-RXSL-RM3C-IC, QSX-RXSL-RM4C-ICmechanical-drawing drawing

Transmitter Package 05AR DrawingMechanical drawing05ARmechanical-drawing drawing

Transmitter Package 05AR Model (<1 MB Download)STEP model05ARstep-model drawing

PDF

Compact Receiver Heat Sink DrawingMechanical drawingAll RDMS™ Compact Receivers, QSX-AC-RXHS, ACC016

A15, B15, C15, D15, E15, F15, A37, B37, C37, D37

mechanical-drawing drawing

Transmitter Pinout NVPinout diagramNVpinout-diagram drawing

Transmitter Package 06AN DrawingMechanical drawing06ANmechanical-drawing drawing

Transmitter Package 06AN Model (<1 MB Download)STEP model06ANstep-model drawing

Transmitter Pinout R2Pinout diagramR2pinout-diagram drawing

Transmitter Package 02BB DrawingMechanical drawing02BBmechanical-drawing drawing

TMoIP Processor DrawingMechanical drawingTMOIP-12mechanical-drawing drawing

Transmitter Package 01PJ DrawingMechanical drawing01PJmechanical-drawing drawing

PDF

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – DrawingMechanical drawingAll 4" x 3" Dual TIMTER™ transmitters, QSX-AC-34-HS-28V-SP, ACC056

02AA, 2E, 2G, 2H, 2L, 2N, 2Q, 2R, 2S, 2T, 02AB, 2D, 2F, 2J, 2K, 2M, 2P, 04AA, 4C, 4T, 04AB, 4D, 4F, 4G, 4H, 4K, 4L, 4M, 4N, 4P, 4Q, 4S, 04AC, 4J, 04AD, 4E, 4R, 04AG, 04AH, 05AE, 05AF, 05AG, 05AH, 06AB, 6W, 06AE, 6H, 06AJ, 6B, 06AM, 07AC, 6E, 07AH, 07AN, 07AQ, 07AS, 07AW, 07AX, 07AY, 07AZ, 07BA, 07BB, 07BC, 07BD, 07BE, 07BF, 07BG, 07BH, 07BJ, 07BK, 07BL, 07BM, 08AB, 08AN, 08AS, 08AT, 08AU, 08AV, 08AW, 08AX, 09AA, 9B, 09AK, 09AM, 18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

mechanical-drawing drawing

PDF

ADAPT™ PD750 Auto-Deployable Antenna System DrawingMechanical drawingPD, HyperTrack™, ADAPT, MOSAICmechanical-drawing drawing

PDF

EVTM Encoder/Decoder DrawingMechanical drawingmechanical-drawing drawing

PDF

EVTM Node Controller DrawingMechanical drawingQSX-EVTM-NCmechanical-drawing drawing

PDF

RDMS™ Compact Receiver-Combiner DrawingMechanical drawingQSX-RDMS-3RCDmechanical-drawing drawing

Transmitter Package 04AT DrawingMechanical drawing04ATmechanical-drawing drawing

Transmitter Package 02BB Model (1 MB Download)STEP model02BBstep-model drawing

Transmitter Package 04AT Model (<1 MB Download)STEP model04ATstep-model drawing

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – Model (<1 MB Download)STEP modelAll 4" x 3" Dual TIMTER™ transmitters, QSX-AC-34-HS-28V-SP, ACC056

18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

step-model drawing

Airborne IntelliCool™ Heat Sink for 4″ x 3″ Transmitters – Assembly with Package 18xx – Model (1 MB Download)STEP modelAll 4" x 3" Dual TIMTER™ transmitters, QSX-AC-34-HS-28V-SP, ACC056

18AG, 24AG, 24AH, 24AJ, 24AK, 24AL, 24AM

step-model drawing

RDMS™ Compact Receiver-Combiner Model (8 MB Download)STEP modelQSX-RDMS-3RCDstep-model drawing

EVTM Node Controller Model (2 MB Download)STEP modelQSX-EVTM-NCstep-model drawing

Transmitter Package 02BB Model (1 MB Download)STEP model02BBstep-model drawing

Compact Receiver Pinout A37_00Pinout diagramA37_00pinout-diagram drawing

Compact Receiver Pinout C37_04Pinout diagramC37_04pinout-diagram drawing

Compact Receiver Pinout C37_00Pinout diagramC37_00pinout-diagram drawing

Compact Receiver Pinout C15_00Pinout diagramC15_00pinout-diagram drawing

Compact Receiver Pinout C15_04Pinout diagramC15_04pinout-diagram drawing

EVTM Airborne Encoder-Decoder Pinout ARPinout diagramARpinout-diagram drawing

EVTM Airborne Encoder-Decoder Pinout ATPinout diagramATpinout-diagram drawing

TMoIP Processor Model (2 MB Download)STEP modelQSX-TMOIP-12step-model drawing

Transmitter Package 01BA Model (<1 MB Download)STEP model01BAstep-model drawing

Transmitter Package 07BK Model (<1 MB Download)STEP model07BKstep-model drawing

Transmitter Package 01BA DrawingMechanical drawing01BAmechanical-drawing drawing

Transmitter Package 07BK DrawingMechanical drawing07BKmechanical-drawing drawing

Transmitter Package 04AR DrawingMechanical drawing04ARmechanical-drawing drawing

Transmitter Package 04AR Model (1 MB Download)STEP model04ARstep-model drawing

Transmitter Package 06AJ Model (<1 MB Download)STEP model06AJstep-model drawing

Transmitter Package 06AP DrawingMechanical drawing06APmechanical-drawing drawing

Transmitter Package 04AP DrawingMechanical drawing04APmechanical-drawing drawing

Transmitter Package 04AP Model (3 MB Download)STEP model04APstep-model drawing

How to Search for a Specific Item

For Transmitter Package and Pinout Codes

Enter the transmitter’s package or pinout code in the search field.

Transmitter part numbers have several alphanumeric segments with dashes in between. The first segment is always QSX. If the second segment has four characters (e.g., QSX-VMR2-1100-10-16-04AB-BR1-PS8-VP-WV), then the pinout code is the fifth segment (16 in this example) and the package code is the sixth segment (04AB). If the second segment has three characters (e.g., QSX-VMR-110-10S-20-4D-BR1-PS8-VP-WV), then the package code is the sixth segment (4D) and the pinout is not included in the part number. To get the pinout code in that case, you will need to refer to documentation such as the quote or sales order, or contact support@quasonix.com.

For Other Products

Enter the part number in the text search box. As you do, the list of related files will be quickly filtered to match.

TypeTitleLengthUpdatedDescriptionKeywordshf:tax:product_category

Transportable Antennas Slideshow1:522023.10.23

Quasonix antennas are going places, through innovative engineering that allows for greater size, mobility, and utility, while maintaining extended durability and jitter-free precision tracking. This slideshow gives you a taste of the ways we are responding to customers’ needs. You CAN take it with you.

antenna
ground station
HyperTrack
mobile
portable
QTrack
trailer

hypertrack precision-drive qtrack antennas

RDMS™ Adaptive Equalizer Demonstration – SOQPSK1:332022.12.09

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming an SOQPSK signal with severe three-ray multipath distortion into nearly perfect data.

Adaptive equalizer
Data quality
Demonstration
Gen3
IF port
Multipath distortion
RDMS™
receiver
third generation
signal quality
spectrum
Three-ray

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulators

RDMS™ Adaptive Equalizer Demonstration – PCMFM2:032022.12.09

Brief demonstration of how our RDMS™ Adaptive Equalizer can conquer multipath, transforming a PCMFM signal with severe three-ray multipath distortion into nearly perfect data.

Adaptive equalizer
Data quality
Demonstration
Eye pattern
Gen3
IF port
Multipath distortion
RDMS™
receiver
third generation
signal quality
spectrum
Three-ray

compact-rdms-gen-3 compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulators

Maximal Ratio Combiner Simulation1:112020.04.23

Simulation of maximal-ratio diversity combining, showing how it phase aligns and coherently sums two signals but non-coherently sums their noise, resulting in up to 3 dB improvement in signal-to-noise ratio. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulators

PCMFM Adaptive Equalization (Training)0:302020.07.14

Original, received (three-ray), and equalized PCMFM signal. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulators

SOQPSK Adaptive Equalization (Training)0:302020.07.14

Original, received (three-ray), and equalized SOQPSK signal. Used in TM Smorgasbord training.

compact-receiver-combiner rackmount-rdms-gen-3 receivers-demodulators

QTrack™ Demonstration7:502020.12.19

Demonstration of the agility of a QTrack™ antenna as it auto-tracks a drone. Quasonix QTrack™ portable low-gain antennas, coupled with industry-leading Quasonix RDMS™ telemetry receivers, are the perfect solution for portable or mast-mounted antenna applications. Can your antenna do this?

Antenna
Auto-tracking
Camera
Drone perspective
Fly-by
Pirouette
Portable
QTrack
Video feed

qtrack antennas

Compact Receiver-Combiner (CRC) Lite – Demonstration5:022020.12.03

Distributed-antenna example with 5 RF patches, 5 CRC units, a NetAcquire A-CSS, and a rotating RF source. In addition to clock and data, the CRC units provide a real-time quality metric, allowing the BSS function to produce the optimum bit decisions as the RF source moves through space.

adaptive beam-forming
adaptive equalizer
advanced correlating source selector
ARTM
BERT
combiner
composite response
CRC
data quality metric
demonstration
diversity combiner
DQE
DQM
dual-channel receiver
error-free
LDPC
NetAcquire A-CSS
optimum bit decisions
patches
real-time
receiver
RF
STC
true trellis demodulation

compact-receiver-combiner receivers-demodulators

Custom Portable Antenna Enclosure6:512020.12.31

An example of a custom portable enclosure manufactured by Quasonix. Take a closer look inside this mobile, full-featured PD450 tracking system, which includes a retractable roof, hydraulic scissor lift, and interior control center.

acquisition aid
antenna control unit
conscan feed
control room
differential GPS
enclosure
HD surveillance camera
hydraulic scissor lift
mobile
PD450
RDMS rackmount receiver
retractable roof
tracking

precision-drive antennas

Trailered PD450 Drone-Tracking Demonstration5:572021.01.05

Using a 6-foot dish with a PD450 pedestal mounted to a trailer, we auto-track a drone, with near-perfect results. Filmed in California, this video highlights some of the key features of our antennas and the limitless potential of Quasonix’s full product line.

ACU
Antenna Control Unit
camera
drone
Ethernet
portable
RDMS
receiver
system
tracking
trailer
view-finder

precision-drive antennas

STC vs. Traditional Two-Antenna Solution6:302020.05.01

Recording from an early test flight showing how Space-Time Coding eliminates signal fades inherent in a normal two-antenna solution.

Fading
Self-interference
Signal
Space-Time Coding (STC)
Test flight
Two-antenna
Video

compact-receiver-combiner dual-timter rackmount-rdms-gen-3 receivers-demodulators transmitters
Training

Telemetry Training

TM Smorgasbord

In this educational series, written and presented by Terry Hill, get a little taste of “all things telemetry.”

Day 1

This session covers performance metrics and continuous-phase modulation (Tier 0, Tier 1, and Tier II), then starts into the topic of demodulation, examining trellis vs. single-symbol.

Day 2

This session continues the subject of demodulation, covering the Data Quality Metric, diversity combining, and synchronization. It then moves on to channel impairments, with details on adaptive equalization as one impairment-mitigation technique.

Related videos (to view online):

Day 3

The training continues with a review of five more impairment-mitigation techniques – Best Source Selection, Best Channel Selection, Space-Time Coding (STC), Low-Density Parity-Check (LDPC) Coding, and auto-tracking antennas – then wraps up with a look at using all the tools together and a performance comparison and summary.

Related video (to view online):

Advanced Modulation Techniques for Telemetry

Digital Signal Processing to Improve Telemetry Links

Other Telemetry Training

Papers

Conference Papers

TypeTitleUpdatedRevisionDescriptionKeywords

Ethernet via Bidirectional Packet Based Telemetry – FDD vs. TDD – ITC Paper2023.10.24

“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 – How Accurate Does it Need to Be? – ITC Paper2023.10.24

“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 – ITC Paper2022.10.18

“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 Standard for Bidirectional Telemetry Interoperability – ITC Paper2023.10.24

“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 – ITC Paper2023.09.28

“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 – ITC Presentation2023.09.28

“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

SOQPSK ITC Paper2000.10.23

“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

Multi-Symbol Demodulator ITC Paper2000.10.23

“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

ARTM Tier II Waveform ITC Paper2000.10.23

“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

Trellis Detection of SOQPSK ITC Paper2001.10.22

“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 Transciever Data Link Standard ITC Presentation2001.10.22

“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

SOQPSK and Multi-h CPM in the Presence of Interference ITC Presentation2001.10.22

“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

SOQPSK and Multi-h CPM in the Presence of Interference ITC Paper2001.10.22

“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

SOQPSK and Multi-h CPM in a Multipath Channel ITC Paper2001.10.22

“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

Multi-Symbol Detection of PCM/FM ITC Paper2001.10.22

“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

VHDL-Based, Multi-Mode ARTM Demodulator ITC Paper2002.10.21

“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 ITC Paper2002.10.21

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

Detection Efficiency
family
filter
Linear Receiver
SOQPSK
waveforms

Multi-Symbol Detector and Turbo Coding ITC Paper2002.10.21

“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 ITC Paper2002.10.21

“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

Turbo Product Codes ITC Paper2003.10.20

“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

CMA Equalization ITC Paper2003.10.20

“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 ITC Paper2013.10.21

“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 ITC Paper2014.10.20

“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

Data Quality Estimation ITC Paper2015.10.26

“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

Data Quality Encapsulation and Best Source Selection ITC Paper2017.10.23

“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)

Best-Channel Selection ITC Paper2018.11.05

“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 for Adaptive Equalizers ITC Paper2019.10.21

“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 ITC Paper2019.10.21

“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

Best-Channel Selection Field Test Results ITC Paper2019.10.21

“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)

All-Digital Antenna Control Protocol ITC Paper2019.10.21

“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)

Airframe Reflections ITC Paper2019.10.21

“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

Ethernet Via Telemetry ITC Presentation2015.10.28

“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

Ethernet Via Telemetry ITC Paper2015.10.28

“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

Adaptively Equalized Waveforms ITC Paper2002.10.21

“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

Policies

Policies and Procedures

TypeTitleUpdatedRevisionDescriptionKeywords

Quasonix Terms and Conditions of Sale2023.10.01

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

Quality Management System Documentation2024.03.295.9

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

ISO 9001:2015 Certificate (Moorpark)2023.10.21

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

Limited Warranty2017.05.02

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

ISO 9001:2015 Certificate (West Chester)2023.06.25

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

F-20 Quality Notes2017.12.14

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