Project Omega is rebuilding the U.S. nuclear fuel cycle end‑to‑end to restore domestic energy sovereignty. By developing modern recycling, safeguards, and scalable fuel pathways, the company aims to enable small‑scale, long‑duration nuclear power systems that can meet growing national energy demand.
Funding
Funding not disclosed
Founders
Product
Problem
The United States lacks domestic nuclear fuel recycling, modern materials, and scalable fuel pathways, preventing the deployment of small‑scale, long‑duration nuclear power systems. This limits the country’s ability to meet rising energy demand from AI acceleration, electrification, and next‑generation manufacturing using nuclear energy.
Solution
Project Omega is reconstructing the U.S. nuclear fuel cycle from raw material to end‑use to restore domestic energy sovereignty. The company develops advanced nuclear materials, integrated safeguards, and scalable fuel pathways that enable compact, long‑lasting reactors. By establishing a domestic recycling loop and modernizing the fuel supply chain, Project Omega aims to provide reliable, high‑density power for emerging high‑energy applications. The approach seeks to unlock nuclear’s full potential as a resilient, abundant energy source for the nation’s innovation trajectory.
Target Audience
Primary customers are U.S. energy utilities, government agencies, and industrial firms requiring high‑density, reliable power for AI, electrification, and advanced manufacturing projects.
Features
- End‑to‑end redesign of the nuclear fuel cycle, including mining, enrichment, fabrication, and recycling
- Development of next‑generation nuclear materials with enhanced performance and safety characteristics
- Integrated safeguards and monitoring systems to ensure secure and compliant operation
- Scalable fuel pathways that support small‑scale, long‑duration reactor designs
- Domestic fuel recycling capability to reduce reliance on foreign supply chains
- Modular reactor concepts optimized for AI acceleration, electrification, and advanced manufacturing workloads