Material Properties of Unirradiated Uranium-Molybdenum (U-Mo) Fuel for Research Reactors

This publication provides essential material properties data for unirradiated Uranium–Molybdenum (U-Mo) fuel, aiding fuel designers and reactor operators in evaluating performance and safety. It covers mechanical and physical property data from U-Mo fuel research, highlighting advancements since 2004.

\n Format: Paperback / softback
\n Length: 144 pages
\n Publication date: 30 January 2021
\n Publisher: IAEA
\n

This comprehensive publication provides essential material properties of all unirradiated Uranium-Molybdenum (U-Mo) fuel constituents, crucial for fuel designers and reactor operators to evaluate the performance and safety of research reactors. Since 2004, significant advancements in understanding and developing low enriched uranium U-Mo fuels have been driven by the urgent need to comprehend irradiation behavior and early fuel failures during testing. The publication offers a thorough overview of mechanical and physical property data derived from extensive U-Mo fuel research endeavors.

The understanding of the mechanical and physical properties of uranium-molybdenum (U-Mo) fuel is crucial for fuel designers and reactor operators to assess the performance and safety of research reactors. Since 2004, significant progress has been made in this field, driven by the need to understand irradiation behavior and early fuel failures during testing. This publication presents a comprehensive overview of mechanical and physical property data derived from extensive U-Mo fuel research endeavors.

Uranium-molybdenum (U-Mo) fuel is a type of nuclear fuel that combines uranium and molybdenum metals. It is used in research reactors, which are smaller and less powerful than commercial nuclear power plants. The fuel is unirradiated, meaning it has not been exposed to any radiation from a nuclear reactor.

The mechanical and physical properties of U-Mo fuel are important for several reasons. First, they determine the fuel's behavior during irradiation, which can affect the reactor's safety and performance. Second, these properties can affect the fuel's durability and longevity, which is important for long-term storage and disposal. Finally, these properties can affect the fuel's cost and availability, which can have a significant impact on the cost of nuclear energy.

The publication provides a comprehensive overview of the mechanical and physical properties of U-Mo fuel. It includes data on the fuel's density, melting point, boiling point, tensile strength, and other relevant properties. The data is derived from a wide range of sources, including experimental measurements and theoretical calculations.

The publication also discusses the effects of irradiation on the mechanical and physical properties of U-Mo fuel. It highlights the importance of understanding irradiation behavior to ensure the safety and reliability of research reactors. The publication also discusses the development of new materials and technologies that can improve the performance and safety of U-Mo fuel.

In conclusion, this comprehensive publication provides essential material properties of all unirradiated Uranium-Molybdenum (U-Mo) fuel constituents, crucial for fuel designers and reactor operators to evaluate the performance and safety of research reactors. Since 2004, significant progress has been made in understanding and developing U-Mo fuels, driven by the need to understand irradiation behavior and early fuel failures during testing. The publication offers a thorough overview of mechanical and physical property data derived from extensive U-Mo fuel research endeavors, and discusses the effects of irradiation on the fuel's properties.

\n Weight: 404g\n
Dimension: 210 x 296 x 11 (mm)\n
ISBN-13: 9789201157201\n \n