Fusion Fuel Cycles Inc. (FFC) is here to serve as your trusted partner on the path to commercial fusion. Our engineering team will leverage decades of hands-on experience to efficiently deliver the outputs you need to advance your projects from concept to deployment. Avoid costly mistakes, ensure the safety of your staff, and accelerate your design and planning phases by working with FFC.

For any licensed nuclear facility, operators play a critical role not only in the effective utilization of the facility, but also in maintaining nuclear safety and operational integrity as required by local regulations. Their work directly impacts nuclear safety, security, environmental protection, and the health and safety of all personnel.

Fusion Fuel Cycles Inc. (FFC) works with its partners to provide training to customers planning to operate licensed facilities via a Systematic Approach to Training (SAT) program. This approach ensures that operators of customer facilities are trained, competent, and qualified.

Successfully addressing safety and regulatory challenges is a critical step toward achieving operational readiness for any fusion facility. In the fusion context, licensing requirements are often driven by the presence and handling of tritium and other radioactive substances. Without the right enabling support, fusion developers face uncertainty, delays, and increased costs tied to safety assessments, environmental approvals, and radiological protection. Demonstrating safe confinement, environmental management, and regulatory compliance is not optional—it’s essential for moving forward.

Tritium, the radioactive isotope of hydrogen, used as a fuel in D-T fusion, is not categorized as special nuclear material. This means that for a fusion power plant, the requirements for tritium control and accountability are not defined by the IAEA, but by other regulatory bodies identified in the various national license frameworks. It is good practice in tritium operations to set up an accounting structure using material balance areas to track tritium flows in and out. Regulatory compliance usually requires end-to-end traceability of tritium movement throughout fusion fuel cycle systems. For continuously operated balance areas, such as a fusion power plant fuel cycle, this requires accurate and real-time analysis of tritium. This capability is essential not only for regulatory compliance, but also for integrated control of the different fuel cycle loops, for operational safety, and for environmental stewardship. An efficient and practical set of tritium measurement tools is therefore necessary for economical generation of fusion energy.

With the emergence of commercial fusion power plants and related experimental or demonstration systems, the need for tritium handling and processing facilities is expected to grow substantially. At the same time, design approaches are shifting toward standardization as priorities move from scientific exploration to operational efficiency. Process modeling and simulation remain critical tools in the design of any complex system. FFC has developed the Fusion Fuel Cycle Simulator (FFCSim) to address these needs.

Reducing tritium inventory is a key requirement for fusion experiments and future reactors, driven by regulatory, safety, and economic considerations. Fusion Fuel Cycles Inc. (FFC) specializes in developing fuel cycle architectures that minimize tritium inventory, supported by advanced technologies designed to achieve this objective. These technologies include Reactor Exhaust Systems, Direct Internal Recycling (DIR), and Isotope Separation Systems (ISS). FFC’s team is composed of core experts with decades of experience in tritium system design and inventory management.