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Propulsion / Research · 2025 — Present

Rotating Detonation Rocket Engine

Co-founder and propulsion engineer at Project Wavefront, a nonprofit research organization developing an affordable, additively manufactured GOX/GCH₄ rotating detonation rocket engine. The Mark I has cleared critical design review and printing; the test campaign is underway.

Thrust2 kN
P chamber21 bar
PropellantGOX / GCH4
Isp255 s
Wave freq.13.5 kHz
Runtime>30 s
Rotating Detonation Rocket Engine
The Mark I demonstrator as printed

Why detonation

Conventional rocket engines burn propellant through subsonic deflagration. An RDRE instead sustains one or more detonation waves traveling continuously around an annular chamber — pressure-gain combustion that studies suggest can improve thermodynamic efficiency on the order of 10–20%. The catch has always been cost: RDREs historically demand expensive infrastructure, complex manufacturing, and long development cycles.

Project Wavefront exists to attack that cost problem directly. The Mark I is a monolithic, additively manufactured methane/oxygen engine designed for minimal post-machining, rapid design iteration, and long-duration operation — a development pathway meant to accelerate pressure-gain propulsion toward practical systems.

The Mark I

The engine is a compact 2.56-inch-diameter annular combustor producing roughly 2 kN of thrust at 21 bar chamber pressure. A triplet impinging injector array provides detonation-quality mixing, an integrated deflagration-to-detonation transition (DDT) system handles ignition, and a water-cooled architecture rejecting ~0.95 MW supports run times beyond 30 seconds. Feed manifolds and instrumentation provisions are printed directly into the part, with a dual-material development path through Inconel 718 and GRCop-42.

My work

As propulsion engineer I own much of the engine's fluid and combustion design: transient CFD of the impinging injectors, injector flow-distribution studies and geometry optimization, feed-line thermal and Joule–Thomson analysis, and blast-overpressure safety analysis for the test site. On the organizational side I co-founded the nonprofit itself — fundraising, sponsorships, vendor relationships across the feed-system supply chain, and the procurement program for the test stand now in buildout.

Status

Design freeze (Nov 2025), critical design review (Jan 2026), and demonstrator printing (Feb 2026) are complete. Test stand buildout and test site selection are in progress, with cold flow and hot fire targeted for late summer 2026. The project was presented at the USSF University Consortium Symposium in June 2026.