American Fusion Inc. has completed the first phase of its Texatron™ Fusion Engine™ test program at the Department of Physics and Astronomy of Texas Tech University in Lubbock, Texas. The results are tangible: remote ignition and control systems are fully operational, plasma switching has been verified, high-voltage vacuum tests have been passed, and radiation monitoring systems have been validated using non-radioactive fusion fuel. No measurable radiation was detected throughout the entire initial phase.
The operational team consisted of seven American Fusion technicians and scientists, who worked directly within the university’s facilities to set up instrumentation, system interfaces, and the laboratory environment. The methodological approach calls for repeated verification of each subsystem — including calibrations, diagnostic measurements, and targeted experimental tests — aimed at confirming repeatability and operational consistency before advancing to subsequent phases. This is not a one-off demonstration experiment: it is a structured engineering evaluation program. Data collected during this first phase will inform development across the following test sessions.
Reaching this milestone required significant groundwork. American Fusion had already obtained the Certificate of Registration for Industrial Radiation-Producing Machines from the Texas Department of State Health Services, completing a regulatory process that spanned several months. The Texatron™ platform had also been presented at a scientific conference at Fermilab last July, marking its formal introduction to the research community. On the intellectual property front, the company has filed 76 patent applications in the United States, with a stated goal of reaching over 260 applications to cover the full platform and related technologies.
The Texatron™ is an aneutronic fusion platform — meaning an approach that drastically reduces neutron output compared to conventional fusion — designed for modular deployment across industrial, commercial, military, and limited-capacity grid applications. One of the most technically notable aspects is its direct production of high-voltage direct current: a clear advantage for data centers and industrial facilities that already operate on DC power, where current conversion represents a net efficiency loss. American Fusion has also completed the structural frame of its 5 MW pre-production prototype, a key step ahead of full-scale testing. The ninth 0.5 MW prototype has already been completed.
Interest in this technology extends well beyond the private market. The company has opened discussions with stakeholders in the U.S. and Canadian defense sectors, as well as with players in the space industry. Should subsequent test phases confirm the initial results and the platform reach commercial readiness, the Texatron™ could position itself as one of the very few compact fusion solutions with a credible pathway to infrastructure-level deployment. The test program will continue with periodic technical updates, and a detailed report on the first phase is expected to be published in the coming weeks.
