WYVERN‑1 · Cooperative RF Sensing Array

Locate without
illuminating.

WYVERN‑1 is a passive, AI-driven RF sensing package that locates non-cooperative emitters from distributed autonomous platforms, where traditional systems can't operate.

01

A cooperative aperture larger than any single platform.

Multiple WYVERN‑1 nodes operate together as a single adaptive sensor. They detect, characterize, and locate signals of interest in environments where traditional systems can't operate, with no operator on the loop.

01 · PASSIVE

Passive RF geolocation

The target gets no warning. WYVERN‑1 listens for emissions and never illuminates. Adversaries don't see Wyvern looking.

02 · AI-DRIVEN

Novel methods, working together

Two patented techniques drive the array: machine learning that decides where the array should move, and a novel geometry method that decides how it should be shaped. Both adapt in real time to whatever the emitter does.

03 · CONTESTED

GPS‑denied operation

Engineered for environments where GNSS is jammed, spoofed, or absent. The array stays coherent and accurate without external aids.

04 · EDGE

Compute on the package

Localization runs at the edge inside each sensing node. The network produces decisions, not raw data, even when the link to operators degrades or disappears entirely.

05 · NON-COOPERATIVE

Built for the hard targets

Frequency-hopping. Intermittent transmission. Mobile platforms. The emitters hardest to find with conventional SIGINT are exactly the geometry Wyvern is shaped for.

06 · HOST-AGNOSTIC

One package, many hosts

WYVERN‑1 is the sensing payload. The mission chooses the platform: low-cost UAV, ground vehicle, or fixed installation. Capability rides whatever can carry it.

02

An advantage at the mission level.

WYVERN‑1 brings novel, patented methods to a problem the traditional systems were never designed for: locating non-cooperative emitters in environments where the platforms can't loiter, the spectrum is contested, and the target won't sit still.

AI and machine learning drive the array. The system adapts to whatever the emitter does. It works in environments where conventional approaches can't operate, on low-cost autonomous platforms that the U.S. military is fielding in volume.

Performance projects to a fraction of the geolocation error of traditional systems. Validated in a high-fidelity digital twin before flight, with more than half of the projected technical risk retired pre-prototype.

Core IP licensed through LTB LLC and developed in collaboration with the Darwin Deason Institute for Cyber Security at SMU.

ApproachPassive, cooperative geolocation
MethodsTwo patented techniques (AI/ML driven)
OperationAutonomous. No specialized operator training
EnvironmentGPS-denied, contested EW
HostsLow-cost autonomous platforms
ValidationHigh-fidelity digital twin
MaturityEngineering prototype, lab-validated
COOPERATIVE GEOLOCATION · SIMULATEDNOTIONAL
N1 N2 N3 TARGET
Roadmap

Quantum sensing front-end

Wyvern's technology roadmap extends the system with a quantum sensing front-end for wider instantaneous bandwidth and a smaller package profile, aligned with the broader photonic-integration roadmap in defense quantum sensing.

03

The electromagnetic fight has changed shape.

Adversary signals are shorter, lower power, and more mobile. Friendly forces operate increasingly in GPS-denied terrain. Mass-producible autonomy is now a stated procurement priority. Wyvern is built for the fight that has actually arrived.

Doctrine
Distributed autonomous force
DoD is shifting toward low-cost, mass-producible autonomous platforms. Wyvern's payload form factor is built to ride those platforms, not compete with them.
Acquisition
DIU‑ready posture
Built around commercial-pace iteration with defense-grade rigor. Engagement model fits non-traditional acquisition pathways.
Environment
Contested EW
As GPS denial and spoofing become baseline assumptions, passive cooperative geolocation moves from nice-to-have to operational necessity.
Edge
Compute caught up
Onboard inference at array scale is finally tractable. The bottleneck is no longer silicon; it is the right algorithms in the right geometry.
04

Founders who've shipped before.

Wyvern pairs three decades of operator experience with the technical depth of one of the nation's leading academic security institutes.

Mike Thompson

Mike Thompson

Co-Founder & CEO

35+ years across telecom, wireless, and security. Began at Bell Canada in switching, data, and systems engineering. Global Practice Leader at Nortel Networks, scaling wireless and security solutions across dozens of countries. Founded ICSynergy International and led it through acquisition by a top-five global private equity firm. Drove global M&A at iC Consult Group as it became the world's leading pure-play IAM consultancy. Founding Managing Partner of QuantaCyber and Tri-Chair of the Tech Titans Quantum Cybersecurity Forum.

Dr. Mitch Thornton

Dr. Mitch Thornton

Co-Founder & CTO

Cecil H. Green Chair of Engineering and Professor of Electrical and Computer Engineering at Southern Methodist University. Executive Director of the Darwin Deason Institute for Cyber Security and Program Director of SMU's M.S. in Quantum Engineering, one of the first such programs in the country. Author of five books and over 350 technical publications, holder of 30+ patents, and principal investigator on more than 100 sponsored research projects. Earlier engineering roles at L3Harris (then E-Systems), Cyrix Corporation, and Amoco Research.

Institutional Foundations
Darwin Deason Institute, SMU LTB LLC Invited demonstrations at U.S. military test ranges
05

Two things were true in 2025.

The first: the next decade of conflict will be fought across a contested electromagnetic spectrum, against emitters that move, hop frequencies, and transmit in bursts. Locating those emitters fast and accurately is a precondition for nearly every kinetic and non-kinetic effect that follows.

The second: the United States is moving sensing capacity off large, expensive, traditional systems and onto distributed autonomous platforms built in the thousands. Low-cost autonomous platforms are now where capability is supposed to live.

The gap was obvious. The platforms were ready. The sensing payloads they needed weren't. Conventional passive geolocation depends on pre-planned orbits, GPS-anchored timing, and emitters that sit still long enough to be triangulated. None of those assumptions held.

What Wyvern does about it

Wyvern was founded in 2025 to close the gap. WYVERN‑1 is a passive, AI-driven RF sensing package built to ride the platforms the military is fielding now. Two patented methods let the array adapt in real time to whatever the emitter does. The system is GPS-independent by design. It listens, never illuminates, and works in environments where traditional systems can't operate.

Why this team

Wyvern is built by an operator and a scientist.

Mike Thompson has spent thirty-five years across telecom, wireless, and security. He began his career at Bell Canada in switching, data, and systems engineering, the foundations of modern wireless infrastructure. He moved to Nortel Networks as Global Practice Leader, scaling wireless and security solutions across dozens of countries. He went on to found ICSynergy International and led it through acquisition by a top-five global private equity firm. He drove global M&A at iC Consult Group as it became the world's leading pure-play IAM consultancy. He is founding Managing Partner of QuantaCyber and tri-chairs the Tech Titans Quantum Cybersecurity Forum. He knows the spectrum, knows the systems, and knows how to put real capability into real customers' hands.

Dr. Mitch Thornton holds the Cecil H. Green Chair of Engineering at Southern Methodist University, runs the Darwin Deason Institute for Cyber Security, and directs SMU's Master's program in Quantum Engineering, one of the first such programs in the country. He authored the patents that drive WYVERN‑1. The math is his.

Defense sensing fails most often at the seam between lab and field. Wyvern has both ends of that seam in the same room.

Why this, why now

Two technical shifts converged in the last few years and made WYVERN‑1 possible. Onboard compute is finally tractable enough to run sophisticated machine-learning policies at the edge in real time. The methods behind cooperative passive geolocation have matured to the point where the analytical work, the AI infrastructure, and the hardware can be packaged into a single fielded payload.

What changed is that the platforms exist now too. Five years ago, building a sensing package optimized for low-cost autonomous platforms would have been a science project looking for a customer. Today the customer is in front of us, the doctrine is being written, and the contracts are being awarded.

Wyvern exists because that window doesn't stay open forever.

What we're building

WYVERN‑1 is the first system. It will not be the last. The architecture is designed to scale across host platforms, mission profiles, and follow-on sensors. The roadmap extends into a quantum sensing front-end in the coming generation. The longer-term goal is a sensing layer the U.S. military and its allies can rely on, whatever the platform, whatever the spectrum, whatever the fight.

Wyvern at a Glance
Founded2025
HeadquartersDallas, Texas
StageSBIR Track, Seed
SectorDefense Sensing
First SystemWYVERN‑1
FocusPassive RF Geolocation

Find them first. Without being found.

For operators who can't afford to be seen.

Wyvern is engaging with program offices, primes, and mission users on classified and unclassified pathways. Briefings available under appropriate cover.