Radix-2 Technologies
Radix-2 Technologies — Founder and Principal Engineer
SBA-Certified SDVOSB

Radix-2 Technologies is an SBA-certified Service-Disabled Veteran-Owned Small Business (SDVOSB) based in Mt Juliet, TN.

Issued U.S. Patents

Multimedia Alerting — U.S. Patent Nos. 8,519,860 & 8,788,606 →

Principal Engineer • Mt Juliet, TN SBA-Certified SDVOSB

About Radix-2 Technologies

Radix-2 Technologies was founded on the belief that the most difficult engineering problems rarely fit neatly within a single discipline.

I am the founder and Principal Engineer of Radix-2 Technologies, an SBA-certified Service-Disabled Veteran-Owned Small Business (SDVOSB) specializing in advanced RF, radar, digital signal processing, communications, and multidisciplinary engineering. I bring more than 30 years of experience spanning electrical engineering, software development, atmospheric science, defense systems, modeling and simulation, and technical leadership.

My engineering work increasingly centers on problems that cross the boundaries between hardware, physics, algorithms, and software. Areas of specialization include RF and microwave systems, radar and communications, digital signal processing, software-defined radio, antennas and propagation, waveform processing, coherent receivers, electromagnetic modeling, embedded systems, and FPGA-based signal processing. Additional experience includes control systems, guidance, navigation and control, geospatial systems, meteorological sensing, hardware-in-the-loop integration, and VHDL/FPGA development.

A central theme throughout my career has been the ability to follow a problem through the entire engineering stack: from the underlying physics and mathematical model, through simulation and algorithm development, into software or FPGA implementation, hardware integration, laboratory measurement, and quantitative performance assessment. Radix-2 was created to apply that approach to technically demanding problems where understanding the complete system matters more than expertise in any single tool or technology.

01 / Origins

From Meteorology to Engineering

My technical career began in atmospheric science.

After earning a Bachelor of Science in Meteorology from the University of Oklahoma, with additional study in mathematics, I worked as a broadcast meteorologist at television stations in Oklahoma, Texas, and Louisiana. At the same time, I began developing meteorological software professionally, combining an understanding of atmospheric physics with a growing interest in numerical methods, computing, radar, and signal processing.

In 1998, I transitioned into software engineering full time. What began with meteorological applications expanded into large-scale scientific software, geospatial systems, digital signal processing, radar, communications, and defense engineering.

That unusual path continues to influence the way I approach engineering today. Meteorology is fundamentally a problem of extracting useful information from complex, noisy, evolving physical systems. Many of the same principles appear in radar, RF propagation, communications, navigation, remote sensing, and autonomous systems.

02 / Hardware, Physics & Signal Processing

Electrical Engineering, RF, Radar, and DSP

As my career progressed, my work moved increasingly toward electrical engineering and signal processing. In 2017, I earned a Master of Science in Electrical Engineering from Ohio University, specializing in autonomous unmanned vehicle design.

My subsequent work has encompassed radar and communications systems, RF and microwave engineering, antenna systems, software-defined radio, propagation and channel modeling, signal detection and estimation, FPGA processing, and hardware/software integration.

Today, much of my work involves connecting domains that are too often treated independently: electromagnetic propagation, RF hardware, waveform design, signal processing, estimation, simulation, software, FPGA implementation, and system-level performance.

I maintain an active engineering laboratory for RF measurement, signal generation and analysis, SDR development, FPGA prototyping, antenna development, and experimental validation. For Radix-2, simulation is not an end product. Whenever practical, analytical and computational results are carried into hardware and tested against measurable physical behavior.

03 / Military Service & Operational Perspective

Defense and Operational Experience

My engineering perspective has also been shaped by military service and operational experience.

I have served for over 19 years—and continue to serve in the reserves—with multiple deployments in support of U.S. military operations, including service in Afghanistan and with the Joint Special Operations Command. Those assignments included technical and operational leadership in environments where systems ultimately had to work outside the laboratory and where reliability, communications, environmental conditions, logistics, and human decision-making were inseparable parts of the engineering problem.

That experience continues to influence Radix-2’s engineering philosophy: understand the physics, build the model, test the implementation, measure the result, and remain focused on the operational problem the technology is intended to solve.

Radix-2 Technologies is an SBA-certified Service-Disabled Veteran-Owned Small Business.

04 / Philosophy

Why Radix-2

Radix-2 is intentionally a small, technically focused engineering company.

The objective is not to build a large organization of interchangeable engineering resources. It is to provide senior-level technical depth for organizations facing difficult problems in RF, radar, communications, sensing, signal processing, modeling and simulation, and related technologies.

That may mean developing a physics-based simulation, designing an antenna or RF subsystem, implementing a signal-processing algorithm, building an FPGA prototype, investigating anomalous receiver behavior, integrating hardware and software, or taking an idea from mathematical formulation through laboratory demonstration.

The common denominator is the same:

Understand the physics. Build the model. Implement the system. Measure what actually happens.

RF, Radar & Microwave Systems

  • Distributed Microstrip, Hairpin & Interdigital Filter Design
  • 3D Electromagnetic Simulation & Modeling (Ansys HFSS)
  • Antenna Systems & Propagation (Dipole, Balun, QFH / GNSS)
  • Coherent Receivers, Laboratory Measurement & VNA Verification

Digital Signal Processing & SDR

  • Waveform Processing & Synchronization (Zadoff-Chu & Gold Codes)
  • Signal Detection, Estimation, Matched Filtering & Carrier Tracking
  • Software-Defined Radio (SDR) & Channel Modeling
  • Algorithm Development & Quantitative Performance Assessment

Multidisciplinary & Embedded Systems

  • FPGA-Based Signal Processing & VHDL Development
  • Control Systems, Guidance, Navigation & Control (GNC)
  • Hardware-in-the-Loop (HIL) Integration & Embedded Systems
  • Meteorological Sensing, Radar & Geospatial Software Systems
Signal Hound BB60C / VSG60A

Real-Time RF Analysis & Signal Generation

  • Real-time spectrum analysis & vector signal generation
  • Modulated waveform generation & receiver characterization
  • Automated RF & scalar/vector S-parameter measurement
Siglent SDS2354X HD

High-Speed Time-Domain Measurement

  • High-resolution oscilloscope characterization
  • Precision timing & pulse analysis
  • Mixed RF / digital system troubleshooting
bladeRF 2.0 micro xA4 / AMD Kria

SDR & FPGA Prototyping

  • Software-defined radio experimentation & real-time DSP
  • FPGA acceleration & VHDL algorithm synthesis
  • Quantitative hardware/software partitioning benchmarks
Ansys HFSS / KiCad / FreeCAD

3D Electromagnetic & System Modeling

  • Full-wave 3D modal/terminal EM simulation & Optimetrics
  • Controlled-impedance RF PCB design & DFM
  • Physics-based Python / C++ / MATLAB modeling