Research
The Center for Nuclear Power (CNP) is focused on driving advancements in nuclear power through collaborative research, education, and technical support. By engaging with stakeholders, fostering partnerships, and addressing key challenges, CNP aims to elevate the role of nuclear power in the global energy landscape.
Research Areas
Transient Fuel Properties and Lattice Optimization
Our research adopts a holistic approach to improving the performance and safety of nuclear reactors, employing a range of innovative methods. Within the area of Transient Fuel Properties, we explore Reduced Order Modeling to better understand transient fuel gap properties, with the objective of enhancing both the predictability and efficiency of reactor operations. In parallel, we are developing new approaches through Machine Learning Optimization to advance lattice and core optimization for multi-cycle operations, applying advanced machine learning techniques to improve reactor operation strategies. Our work also encompasses Two-Phase Flow Modeling, where we conduct sophisticated simulations to analyze the dynamics of two-phase flow, an essential factor for maintaining reactor safety and efficiency. These diverse projects reflect our commitment to contributing to the advancement of nuclear engineering, with a focus on refining reactor designs and upholding the highest standards of safety in operations.
Heat Exchanger and Fuel Cycle Design
In our research, we delve into key areas such as Heat Exchanger and Fuel Cycle Design, aiming to improve the efficiency and reliability of nuclear power plant operations. Our work on the ICS Heat Exchanger Optimization project seeks to enhance the design of heat exchangers, with a goal of achieving higher thermal efficiency and reliability. This is part of our broader effort to contribute to technological advancements that can support the sustainable development of the energy sector.
Simulation, Analysis, and Modeling
In the field of nuclear engineering, our expertise in Simulation, Analysis, and Modeling is significant. Our work ranges from integrating advanced modeling tools to improve simulation accuracy, to undertaking critical analyses of reactor conditions such as Loss of Coolant Accidents in small modular reactors. We focus on the thorough examination of fuel integrity, aiming to meet high safety and performance standards. Our efforts also extend to adapting thermal hydraulic codes to new applications, broadening their utility in contemporary reactor design. Moreover, our application of machine learning for the accurate modeling of coolant properties in pressurized water reactors demonstrates our commitment to using technology for enhancing full core analysis. These projects, diverse yet unified, showcase our dedication to contributing to the advancement of nuclear science, striving for improvements in safety, efficiency, and technological development in the nuclear power sector..
Advanced Modeling and Degradation Analysis
Our domain of Advanced Modeling and Degradation Analysis encapsulates a dedicated focus on the forefront of nuclear technology advancements. With a specialized emphasis on non-light water reactors (Non-LWRs), we are instigating the exploration of degradation mechanisms, ensuring the longevity and reliability of advanced nuclear systems. Our suite of enhancement projects, intricately related to core initiatives in lattice optimization, two-phase flow modeling, and TRISO layer modeling, underscores our comprehensive approach to tackling the complexities of degradation. By placing a strong emphasis on comprehensively understanding these mechanisms, our initiatives do more than just contribute to the advancement of theoretical knowledge; they also establish the foundation for practical solutions that enhance the durability and effectiveness of these complex systems in operational settings.
Novel Research Initiatives
In the realm of Novel Research Initiatives, our commitment to advancing nuclear technology and safety is highlighted through groundbreaking projects and explorations into new frontiers. This endeavor represents our pursuit of precision in simulation and analysis, ensuring the reliability and accuracy of our computational tools in real-world applications. Our portfolio of Emerging Projects showcases our proactive stance towards identifying and developing future research focal points within reactor technology and safety. With new projects poised for initiation, we signal our readiness to delve into uncharted territories of nuclear engineering, guided by the innovative visions of the nuclear industry. These efforts underscore our commitment to pioneering novel research avenues, fostering innovation, and contributing to the enhancement of nuclear reactor technology and safety on a global scale.