Hylenr Achieves Phase 1 Validation for Lattice Confinement Fusion Reactor at Texas A&M University

Hylenr Completes Phase 1 Validation of Lattice Confinement Fusion Reactor at Texas A&M University

Hylenr, a cutting-edge technology firm based in Hyderabad, has announced the successful completion of Phase 1 of its independent validation study on Lattice Confinement Fusion (LCF) at Texas A&M University. This significant milestone not only benchmarked the company’s energy technology but also advanced their roadmap towards commercialization.

The validation study focused on the HylenrBRT-NiUCS-2 reactor, a compact modular system employing nickel-palladium catalyst materials, enriched with hydrogen. Various catalysts and devices were prepared and tested under stringent laboratory conditions within the Nuclear Engineering Department at Texas A&M University.

Titled "Validation of Anomalous Heat and Nuclear Signatures in the BRT-NiUCS-2 LCF Reactor Phase 1 Study," the research investigated the thermal performance of the reactor along with emission levels of radiation and the composition of gases and materials post-reaction. The findings were presented at the 27th International Conference on Condensed Matter Nuclear Science (ICCF-27), which took place from August 31 to September 4 in Niagara Falls, Canada.

Ram Ramaseshan, co-founder and CEO of Hylenr, expressed, "Our ultimate goal has always been to go beyond internal observations and subject our technology to rigorous and independent scrutiny. The validation study at Texas A&M provides valuable external data concerning thermal measurements, gas analyses, and materials characterization. These results lay the groundwork for the following phases of validation, emphasizing our commitment to reproducibility, quantitative measurement, and scientific transparency.”

Professor Lin Shao from Texas A&M remarked on the collaborative effort, “The Phase 1 research allowed us to examine the BRT-NiUCS-2 reactor using diverse complementary analytical techniques. The amalgamation of thermal measurements, residual gas analyses, nuclear diagnostics, and post-reaction materials characterization broadens the experimental foundation for evaluating observation phenomena and determining future research priorities.”

Prominent diagnostic methods incorporated residual gas analysis (RGA), conducted with an SRSRGA 100 system under high vacuum conditions. The study detected heightened signals of helium, argon, and neon within the active reactor, significantly exceeding the background levels; specifically, helium and argon readings were found to be two to three orders of magnitude higher. Interestingly, no corresponding rise in nitrogen levels was detected, which discounts atmospheric leaks as the sole explanation for the obtained measurements.

Thermal measurements, utilizing calibrated thermocouples and infrared imaging, further indicated that the active reactor consistently operated at higher temperatures than the calibration device under comparable input power conditions. The study also documented morphological and compositional alterations in catalyst samples after the reaction, determined through SEM/EDX analyses.

Radiation monitoring, executed using Geiger-Müller and neutron detectors, did not report any gamma or X-ray emissions; neutron counts remained statistically indistinguishable from background levels over an approximate five-day monitoring period.

With Phase 1 complete, Hylenr is set to transition into Phase 2, emphasizing the testing of multiple independent reactors, quantitative calorimetry, enhanced characterization of load parameters, and advanced analytical techniques, including SIMS and ICP-MS. The company views this staged validation process as a crucial linkage between laboratory observations and future commercialization, guiding further development towards establishing repeatability, quantifying energy output, and defining engineering requirements for scalable systems.

About Hylenr

Hylenr focuses on developing small, modular energy systems that utilize hydrogen-loaded materials and crystalline confinement fusion. Their research concentrates on material transformation and excess heat phenomena under controlled conditions, utilizing independent validations to explore potential commercial energy applications.