Peter Doyle
About Peter Doyle
Peter Doyle is an Associate Research Staff member at Oak Ridge National Laboratory, where he has contributed to three major side projects on radiation effects, resulting in three publications. He holds a PhD in Nuclear Engineering from the University of Tennessee, Knoxville, and a BS and BSE in Chemistry and Chemical Engineering from Geneva College.
Work at Oak Ridge National Laboratory
Peter Doyle has been employed at Oak Ridge National Laboratory since 2022, serving as Associate Research Staff. His role involves conducting research related to radiation effects, contributing to the laboratory's mission in advancing scientific knowledge and technological development. Oak Ridge National Laboratory is known for its focus on energy, advanced materials, and national security, providing a collaborative environment for researchers.
Education and Expertise
Peter Doyle holds a Bachelor of Science in Chemistry and a Bachelor of Science and Engineering in Chemical Engineering from Geneva College, where he studied from 2011 to 2015. He furthered his education at the University of Tennessee, Knoxville, earning a Doctor of Philosophy in Nuclear Engineering from 2015 to 2019. His academic background equips him with a strong foundation in both chemical and nuclear engineering principles.
Research Focus and Publications
Doyle has been involved in three significant side projects focusing on radiation effects, which have resulted in three publications. He is currently anticipating an additional publication related to radiation effects in the near future. His research contributes to the understanding of how radiation impacts materials, which is critical in fields such as nuclear engineering and safety.
PhD Research on Corrosion Behavior
During his doctoral studies, Peter Doyle concentrated on the corrosion behavior of coated and uncoated silicon carbide (SiC) in Light Water Reactors. This research is essential for improving the reliability and safety of nuclear reactor materials, providing insights that can influence material selection and reactor design.