FARTTS emblem
FΛRTTS
FMCW AESA RADAR TARGET TRACKING SYSTEM

A Ka-band active electronically scanned array radar platform being developed for real-time detection, tracking, and beam-steered sensing.

TARGET TRACKING RNG4.09 miAZ49.2°EL11.5°VEL404 mph RNG4.02 miAZ48.6°EL11.4°VEL404 mph RNG3.95 miAZ48.0°EL11.3°VEL405 mph RNG3.89 miAZ47.3°EL11.1°VEL405 mph RNG3.82 miAZ46.6°EL11.0°VEL406 mph RNG3.75 miAZ45.9°EL10.9°VEL406 mph RNG3.69 miAZ45.2°EL10.8°VEL407 mph RNG3.62 miAZ44.4°EL10.7°VEL407 mph RNG3.56 miAZ43.5°EL10.5°VEL407 mph RNG3.50 miAZ42.7°EL10.4°VEL408 mph RNG3.43 miAZ41.7°EL10.3°VEL408 mph RNG3.37 miAZ40.8°EL10.2°VEL408 mph RNG3.31 miAZ39.7°EL10.1°VEL409 mph RNG3.25 miAZ38.7°EL9.9°VEL409 mph RNG3.19 miAZ37.5°EL9.8°VEL409 mph RNG3.13 miAZ36.3°EL9.7°VEL409 mph RNG3.07 miAZ35.1°EL9.6°VEL410 mph RNG3.02 miAZ33.7°EL9.5°VEL410 mph RNG2.96 miAZ32.3°EL9.4°VEL410 mph RNG2.91 miAZ30.8°EL9.3°VEL410 mph RNG2.86 miAZ29.2°EL9.1°VEL410 mph RNG2.81 miAZ27.6°EL9.0°VEL410 mph RNG2.76 miAZ25.8°EL8.9°VEL410 mph RNG2.71 miAZ23.9°EL8.8°VEL410 mph RNG2.67 miAZ22.0°EL8.7°VEL410 mph RNG2.63 miAZ19.9°EL8.6°VEL410 mph RNG2.59 miAZ17.7°EL8.5°VEL410 mph RNG2.55 miAZ15.5°EL8.4°VEL409 mph RNG2.52 miAZ13.1°EL8.3°VEL409 mph RNG2.48 miAZ10.6°EL8.2°VEL409 mph RNG2.46 miAZ8.0°EL8.1°VEL409 mph RNG2.43 miAZ5.3°EL8.0°VEL408 mph RNG2.41 miAZ2.6°EL7.9°VEL408 mph RNG2.39 miAZ-0.3°EL7.8°VEL408 mph RNG2.38 miAZ-3.2°EL7.7°VEL407 mph RNG2.37 miAZ-6.1°EL7.6°VEL407 mph RNG2.36 miAZ-9.1°EL7.5°VEL407 mph RNG2.36 miAZ-12.1°EL7.4°VEL406 mph RNG2.37 miAZ-15.1°EL7.3°VEL406 mph RNG2.37 miAZ-18.0°EL7.2°VEL405 mph RNG2.38 miAZ-21.0°EL7.1°VEL405 mph RNG2.40 miAZ-23.8°EL7.0°VEL404 mph RNG2.41 miAZ-26.6°EL7.0°VEL404 mph RNG2.44 miAZ-29.4°EL6.9°VEL403 mph RNG2.46 miAZ-32.0°EL6.8°VEL403 mph RNG2.49 miAZ-34.6°EL6.7°VEL403 mph RNG2.52 miAZ-37.0°EL6.6°VEL402 mph RNG2.56 miAZ-39.3°EL6.5°VEL402 mph RNG2.59 miAZ-41.6°EL6.5°VEL401 mph RNG2.63 miAZ-43.7°EL6.4°VEL401 mph RNG2.67 miAZ-45.7°EL6.3°VEL401 mph RNG2.72 miAZ-47.7°EL6.2°VEL400 mph RNG2.76 miAZ-49.5°EL6.1°VEL400 mph RNG2.81 miAZ-51.2°EL6.1°VEL400 mph RNG2.86 miAZ-52.9°EL6.0°VEL399 mph RNG2.91 miAZ-54.4°EL5.9°VEL399 mph RNG2.96 miAZ-55.9°EL5.8°VEL399 mph RNG3.02 miAZ-57.3°EL5.8°VEL399 mph RNG3.07 miAZ-58.6°EL5.7°VEL398 mph RNG3.13 miAZ-59.9°EL5.6°VEL398 mph RNG3.19 miAZ-61.1°EL5.6°VEL398 mph RNG3.24 miAZ-62.2°EL5.5°VEL398 mph RNG3.30 miAZ-63.3°EL5.4°VEL398 mph RNG3.36 miAZ-64.3°EL5.3°VEL398 mph RNG3.42 miAZ-65.2°EL5.3°VEL398 mph RNG3.48 miAZ-66.2°EL5.2°VEL398 mph RNG3.54 miAZ-67.0°EL5.1°VEL398 mph RNG3.61 miAZ-67.9°EL5.1°VEL398 mph RNG3.67 miAZ-68.7°EL5.0°VEL398 mph RNG3.73 miAZ-69.4°EL4.9°VEL399 mph RNG3.80 miAZ-70.1°EL4.9°VEL399 mph RNG3.86 miAZ-70.8°EL4.8°VEL399 mph
Concept animation: the array electronically steers an RF beam to maintain track on a moving aircraft.
∿

FMCW RADAR

High-resolution ranging and velocity measurement using frequency-modulated continuous-wave techniques.

▦

ACTIVE PHASED ARRAY

Electronically controlled transmit and receive channels designed for rapid beam steering and multi-target sensing.

⌖

REAL-TIME TRACKING

Range-Doppler processing, target detection, and tracking on embedded compute hardware.

System overview

From chirp to track.

FARTTS integrates waveform generation, Ka-band frequency conversion, an electronically steered array, SDR acquisition, and real-time processing into a single experimental radar platform.

〰Waveform / LO
⊗Upconversion
▷AESA TX
✦Target
◁AESA RX
⊗Downconversion
IQSDR Acquisition
◎Processing & Tracking
Project progress

Current Project Status

The prototype is under active development. Current work spans RF architecture, custom antenna arrays, reference distribution, signal processing, hardware integration, and test planning.

✓
RF Architecture
Ka-band conversion chain and LO distribution
✓
Antenna Array Development
Patch-array and feed-network design
✓
Synchronization
Shared frequency and time reference architecture
✓
Signal Processing
Range-Doppler processing and target tracking
•
Prototype Testing
Bench validation and controlled field testing
Partners & supporters

Built with industry support.

Analog Devices

RF Hardware Support

Support for the project’s RF conversion and signal-chain development.

National Instruments / Ettus Research

SDR Support

Support related to the software-defined radio portion of the system.

Ansys

Simulation Software

Full-wave electromagnetic simulation support for antenna and array development.

KRYTAR

Microwave Components

RF and microwave component support used in the radar signal chain.

Rohde & Schwarz

Test & Measurement

Test and measurement support for future RF characterization and validation.

Support FARTTS

Help move the prototype forward.

Funding helps cover remaining beamforming hardware, RF interconnects, LO hardware, antenna fabrication, and other integration costs.

Support on GoFundMe →
The platform

System

FARTTS is a Ka-band FMCW radar platform centered on electronically steered transmit and receive apertures, coherent timing, SDR acquisition, and embedded signal processing.

Ka-bandMillimeter-wave RF architecture
FMCWRange and radial-velocity measurement
AESAElectronic beam steering
Real-timeEmbedded processing and visualization
Detailed hardware architecture

Current System Block Diagram

This is the current planned hardware architecture for the FARTTS prototype. Hover over a commercially identified component to see its name, then click it to open the manufacturer’s official product page.

FMCW AESA Radar Tracking System

Power, USB, SMA, and 2.4 mm interconnects are shown together with the RF, timing, SDR, beamforming, and control hardware.

FARTTS detailed system block diagram
The display, GPSDO, GPS antenna, DC power supply, and custom antenna arrays are not linked because an exact commercial model/product page has not been specified for those items. No product was guessed.
01 / RF Front End

Frequency conversion

Dedicated upconversion and downconversion stages translate between the SDR/IF domain and the Ka-band RF operating region. The architecture is designed around a stable shared reference and controlled LO generation.

02 / Array

Beam steering

Multiple transmit and receive channels drive a phased-array architecture. Element spacing, channel phase control, feed-network layout, and calibration directly shape the beam.

03 / Data

SDR acquisition

Complex I/Q data is captured in the digital domain for waveform analysis, beat-frequency extraction, range-Doppler processing, and algorithm development.

04 / Processing

Target tracking

The processing pipeline combines range, velocity, and angle information to form persistent target tracks and a real-time operator display.

Engineering log

Development

A running view of the engineering work behind FARTTS: antenna design, RF integration, timing, signal processing, bench validation, and eventual field testing.

Roadmap

Prototype development path

RF architecture definition

Define the transmit/receive conversion chain, frequency plan, LO strategy, timing/reference architecture, and channel count.

Antenna element optimization

Tune patch geometry, impedance, bandwidth, substrate, and feed structure through full-wave EM simulation.

Array and feed development

Scale the optimized element into arrays while controlling spacing, coupling, routing, phase length, and fabrication constraints.

SDR and reference integration

Validate RF acquisition, shared frequency/time references, and stable I/Q capture at the system level.

Range-Doppler processing

Implement FMCW beat processing, FFT stages, target extraction, clutter mitigation, and track formation.

Integrated prototype testing

Perform bench characterization followed by controlled outdoor detection and tracking tests as the hardware matures.

People behind the system

Team

FARTTS is being developed by a multidisciplinary electrical engineering team working across system architecture, RF, antennas, software, digital signal processing, power systems, SDR development, integration, and technical documentation.

JB

Jason Besancon

Project Lead

Systems Architecture · RF · Antenna Design · Software

Leads the overall system design and integration, antenna development, RF architecture, evaluation-board control software and CSV configuration, and initial USRP / GNU Radio development.

WM

William Melendez

DSP & SDR Engineer

Digital Signal Processing · Software-Defined Radio

Focused on DSP development and expanding the project’s SDR-based signal acquisition and processing work.

DG

Diego Gonzalez

Power Systems & Signal Processing

Power Systems · GNU Radio Algorithms

Works primarily in power systems while also contributing algorithms intended for implementation inside custom GNU Radio processing blocks.

RO

Rex Onyebuchi

Systems Integration Engineer

Integration · Hardware Bring-Up · Test Support

Supports subsystem integration and cross-functional hardware testing as the prototype moves from individual components toward a complete radar system.

JL

John-Ryan Lawrence

Technical Writing & Documentation

Documentation · Reports · Technical Communication

Focused on the writing and documentation side of the project, including technical reports, project documentation, and written deliverables.

Support network

Partners & Supporters

FARTTS has received hardware, software, and test-resource support from organizations that have helped move the prototype forward. The items below are listed specifically so the contribution is clear.

Support FARTTS on GoFundMe →
Donated hardware & resources

What each supporter contributed.

These entries use the exact quantities and support descriptions currently provided by the team. Product links go to the manufacturer’s official page when a specific product is identified.

1×

USRP B210

Software-defined radio platform.

Ettus Research / National Instruments
Product page ↗
1×

ADMV1013-EVALZ

Evaluation hardware contributed to the RF signal chain.

Analog Devices
Product page ↗
1×

ADMV1014-EVALZ

Evaluation hardware contributed to the RF signal chain.

Analog Devices
Product page ↗
1 yr

HFSS License

One year of Ansys HFSS electromagnetic simulation access.

Ansys
HFSS page ↗
—

Test Equipment

Future test-equipment support.

Rohde & Schwarz
Future
T&M page ↗
Future supporters

How we plan to say thank you.

Recognition is intended to reflect meaningful support without creating a rigid public dollar threshold. Depending on the contribution, supporters may be acknowledged through the project website, project posters and presentations, demonstrations, technical reports, application notes, GitLab/project documentation, and subsystem-specific hardware or resource acknowledgments.

Website Recognition

Supporter profile

Meaningful supporters can receive a dedicated listing with the organization name, what they contributed, and an official product or company link when appropriate.

Project Materials

Posters, demos & presentations

Supporters may be acknowledged in public-facing project posters, presentations, demonstrations, reports, and other technical material.

Technical Credit

Contribution-specific acknowledgment

When hardware, software, fabrication, test equipment, or another resource directly enables a subsystem, the contribution can be credited alongside that part of the project.

Contribute

Interested in supporting FARTTS?

Support can take the form of funding, RF hardware, fabrication, interconnects, test-equipment access, technical review, or other engineering resources.

GoFundMe →
Get in touch

Contact

Questions about FARTTS, technical collaboration, sponsorship, or project support can be sent directly to the project point of contact.

Primary contact

Jason Besancon

General inquiries
contact@fartts.com
Website
fartts.com
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