Jeffrey L. Binder, Ph.D., MBA
Head of Nuclear Laboratory and Technologies
Dr. Binder has had over a 30-year career in applied energy technology as both an engineering & scientific contributor and high impact leader. His experiences include nuclear reactor technology, renewable energy, advanced/critical materials, and manufacturing technology. He had significant international experience following the Soviet Union collapse supporting nuclear safety and security. He has had multiple leadership roles including Associate Laboratory Director for applied energy at Oak Ridge and Argonne National Laboratories, and the Founding Director of the University of Illinois Applied Research Institute. Dr. Binder has significant international experience in promoting nuclear and renewable energy technology. From 2019 to 2021 he developed the vision, strategy, and teaming for Associated Universities, Inc. to propose and be awarded a Chilean institute committed to developing clean technologies in the mining, power, battery, manufacturing, and related industrial sectors, the Instituto Chileno de Tecnologías Limpias (ICTL). He has a Ph.D. in nuclear engineering from the University of Illinois at Urbana-Champaign and an MBA from the University of Chicago. He is the author or co-author of over 100 publications, articles, and conference submittals.
Peter Hosemann, Ph.D.
Head of Nuclear Reactor Design and Materials
Professor and Department Chair of Nuclear Engineering Department in UC Berkeley. Prof. Hosemann’s career started at the Montanuniversitaet Leoben in Austria where he received his Ph.D. and MS degree in Material Science. He joined Los Alamos National Laboratory in 2005 as a graduate research assistant and continued as a Post doc from 2008-2010 before joining UC Berkeley’s nuclear engineering department.
Prof. Hosemann had numerous research stays at the Paul Scherrer Institute in Switzerland and Los Alamos National Laboratory. His research features experimental material science for extreme environments, especially nuclear environments. His focus is on structural materials used for nuclear components (fission, fusion, spallation, etc.) while developing a basic understanding of the materials degradation processes and resulting consequences to engineering application.
Ian Farnan, Ph.D.
Lead of Nuclear Fuel Cycle, Radiation and Materials
Chair of Cambridge Nuclear Energy Centre, Professor of Earth & Nuclear Materials part of Department of Earth Sciences. Dr. Farnan is an expert in the effect of nuclear radiation on materials and has developed nuclear magnetic resonance methods to provide an element specific probe of radiation damage and actinide substitution in a range of materials from nuclear fuels and claddings to waste forms. His current research involves the investigation of the alteration mechanisms of spent nuclear fuel and nuclear waste glasses as a function of radiation damage and aqueous processes. He has extensive experience of high temperature materials and is currently involved in supporting the development of molten salt technology through fundamental research on in situ measurements on dissolution and speciation in molten salts. He has led national (UK EPSRC) and international (Euratom) research consortia including the RCUK/NDA spent fuel research group and more recently within the EPSRC advanced materials for fission program, the consortium Carbides for Future Fission Environments. He is a Discipline Lead for Nuclear Waste Services-RSO in Materials Science.
Eugene Shwageraus, Ph.D.
Lead of Nuclear Reactor Engineering
Professor of Nuclear Energy Systems Engineering at the University of Cambridge Engineering Department, Dr. Shwageraus was the Head of Nuclear Engineering Department at Ben-Gurion University, Israel and Visiting Associate Professor at the Nuclear Science and Engineering Department at MIT. Dr Shwageraus’s research is focused on physics and engineering of nuclear power reactors as well as modelling of nuclear systems to assist policy decision making. His research is focused on modeling techniques and design of advanced nuclear energy systems intended to address future global energy needs in environmentally conscious and resource-sustainable way.
A part of Dr. Shwageraus research is dedicated to studying Thorium based fuel in combination with advanced cladding material such as SiC which may be capable of achieving ultra-high burnup (long fuel cycles at high power densities) while at the same time providing higher safety margin. Dr. Shwageraus has led multiple government and industry-sponsored research projects on developing advanced reactor designs. He is a co-PI on a £7M UK EPSRC sponsored program grant MATHRAD which will apply the latest mathematical methods to radiation transport modelling in nuclear industry, space and medicine.
Nathaniel Read, Ph.D.
Chief Safety Case Engineer
Dr. Read’s present work is concerned with detecting the early signs of nuclear power station decline, whether technical or organizational, that could lead to an accident. Following the Chernobyl accident, it was recognized that a single incident can have global consequences, leading to the establishment of the World Association of Nuclear Operators (WANO). This organization conducts periodic reviews of the global nuclear power station fleet and collects data on operational incidents, including those that are relatively minor. Dr Read’s current postdoctoral work seeks to apply modern machine learning techniques to this dataset to attempt to detect early signs of station decline that could lead to an accident. This vein of thinking emerged after the Three Mile Island incident, after which it became clear that focusing on seemingly small operational details can greatly reduce the probability of large accidents as well improving plant reliability and economics. His research continues in the same philosophy but with the modern advantages of large datasets and the tools to understand them.
Paul Cosgrove, Ph.D., BEng
Head of Computational Methods
After obtaining a BEng in chemical engineering at Queen’s University, Belfast, Dr. Cosgrove completed his MPhil and PhD in nuclear engineering at the University of Cambridge. He now teaches computational methods in nuclear engineering and supervises research projects on the topic. His research interests include stochastic and deterministic methods in radiation transport, multi-physics simulation, numerical analysis, and advanced reactor design.
Valeria Raffuzzi, Ph.D., MSc
Head of Criticality and Shielding
Dr. Raffuzzi obtained her Bachelor degree in Energy Engineering at Politecnico di Milano, her Master’s degree in Nuclear Engineering at EPFL/ETH, and her PhD at the University of Cambridge. Her research focuses on developing novel methods to improve Monte Carlo neutron transport simulations. Valeria is experienced in computational methods for fission and fusion nuclear reactors, criticality and shielding calculations.