Location
Innovation Lab Atrium
Start Date
4-2-2025 2:00 PM
End Date
4-2-2025 3:30 PM
Presentation Date
2 April 2025, 2:00pm - 3:30pm
Biography
Baur biography:
Markus Baur is a dual-enrolled master's student at Missouri University of Science and Technology, set to graduate in May 2025 with a Bachelor of Science in Nuclear Engineering and minors in Pre-Medicine, Chemistry, Math, and Theater. With a strong academic foundation and research focus, Markus is passionate about leadership, education, and innovation in the nuclear industry.
Markus has extensive research experience, including work at the National Institutes of Health, Navy Nuclear Laboratory, and Washington University's Department of Radiation Oncology. Markus's projects have ranged from developing deep-learning applications in skin cancer diagnostics to designing modular radiation shielding for spent fuel inspections. Additionally, Markus has contributed to medical physics research and adaptive radiation therapy techniques.
A recipient of multiple prestigious scholarships, Markus is actively involved in leadership roles, serving on university committees and as Treasurer of Women in Nuclear. With expertise in nuclear materials, radiation shielding, and medical applications, Markus is committed to advancing the field through research and innovation.
Franklin biography:
Eric Franklin is a dedicated nuclear engineering student at Missouri University of Science and Technology, set to graduate in May 2025 with a 3.44 GPA. He has gained extensive hands-on experience through internships at Idaho National Laboratory, First Energy's Davis-Besse Nuclear Power Station, and Entergy's Waterford 3 Nuclear Generation Station, where he worked on neutronics analysis, reactor engineering, and startup testing.
Beyond academics, Eric has been actively involved in leadership roles, serving as Treasurer for both Delta Tau Delta and the American Nuclear Society, managing substantial budgets and financial operations. His research and project work include developing a modular radiological containment system and contributing to the Tritium and Isotope Thermally Activated Network (TITAN). With strong technical skills in MCNP and MATLAB, Eric is passionate about advancing nuclear technology and reactor safety.
Ashley biography:
Cameron Ashley is a senior nuclear engineering student at Missouri University of Science and Technology, graduating in May 2025. Passionate about nuclear materials research, Cameron is particularly interested in their behavior within reactor environments and the broader National Laboratory sector.
With hands-on experience as a Reactor Operator Trainee at Missouri S&T, Cameron developed expertise in reactor safety, experimental facilities, and regulatory protocols. Additionally, serving as Clerk of the Council, they honed skills in documentation and organization, ensuring clear communication for the student body.
Academically, Cameron has engaged in reactor lab experiments, nuclear materials studies, and reactor fluid mechanics problem-solving, gaining valuable technical and analytical skills. A dedicated member of the American Nuclear Society, they actively participate in outreach efforts and professional development. With foundational experience in MCNP and AutoCAD, Cameron is committed to advancing nuclear science through research and innovation.
Meeting Name
2025 - Miners Solving for Tomorrow Research Conference
Department(s)
Nuclear Engineering and Radiation Science
Document Type
Poster
Document Version
Final Version
File Type
event
Language(s)
English
Rights
© 2025 The Authors, All rights reserved
Included in
Developing Modular Radiological Containment for the Naval Nuclear Lab
Innovation Lab Atrium
Comments
Advisor: Joshua P. Schlegel
Abstract:
The Modular Radiological Containment (MRC) system is designed to provide an adaptable, airtight containment solution for handling spent nuclear fuel while minimizing the release of radioactive dust. Unlike traditional hot cells, the MRC system emphasizes modularity, ease of assembly, and mobility without focusing on shielding against gamma radiation. The system consists of interlocking plates with gasketed joints, enabling the construction of customizable containment structures of varying sizes. Material selection prioritizes lightweight, transparent, and structurally sound components, with polycarbonate identified as the optimal choice due to its low weight, transparency, and ease of component attachment. Structural integrity is maintained through design calculations ensuring the plates can support their own weight while remaining maneuverable. 3-D printed models have been created and fine-tuned to best match the design criteria. Future work involves further prototype testing using 3D-printed models refining specialized features such as glove ports, ventilation connections, and window panels. The MRC system presents a promising advancement in radiological containment, offering a flexible, easily deployable solution for nuclear maintenance applications.