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Researcher
- Venugopal K Varma
- Hongbin Sun
- Mahabir Bhandari
- Prashant Jain
- Adam Aaron
- Alexander I Wiechert
- Andrew F May
- Ben Garrison
- Benjamin Manard
- Brad Johnson
- Brandon A Wilson
- Callie Goetz
- Charles D Ottinger
- Charles F Weber
- Christopher Hobbs
- Costas Tsouris
- Eddie Lopez Honorato
- Fred List III
- Govindarajan Muralidharan
- Hsin Wang
- Ian Greenquist
- Ilias Belharouak
- Isaac Sikkema
- Joanna Mcfarlane
- Jonathan Willocks
- Joseph Olatt
- Keith Carver
- Kunal Mondal
- Mahim Mathur
- Matt Kurley III
- Matt Vick
- Mike Zach
- Mingyan Li
- Nate See
- N Dianne Ezell
- Nedim Cinbiz
- Nithin Panicker
- Oscar Martinez
- Pradeep Ramuhalli
- Praveen Kumar
- Richard Howard
- Robert A Bridges
- Rodney D Hunt
- Rose Montgomery
- Ruhul Amin
- Ryan Heldt
- Sam Hollifield
- Sergey Smolentsev
- Steven J Zinkle
- Thomas Butcher
- Thomas R Muth
- Tyler Gerczak
- Ugur Mertyurek
- Vandana Rallabandi
- Vishaldeep Sharma
- Vittorio Badalassi
- Yanli Wang
- Ying Yang
- Yutai Kato

High-gradient magnetic filtration (HGMF) is a non-destructive separation technique that captures magnetic constituents from a matrix containing other non-magnetic species. One characteristic that actinide metals share across much of the group is that they are magnetic.

The invention presented here addresses key challenges associated with counterfeit refrigerants by ensuring safety, maintaining system performance, supporting environmental compliance, and mitigating health and legal risks.

A pressure burst feature has been designed and demonstrated for relieving potentially hazardous excess pressure within irradiation capsules used in the ORNL High Flux Isotope Reactor (HFIR).

V-Cr-Ti alloys have been proposed as candidate structural materials in fusion reactor blanket concepts with operation temperatures greater than that for reduced activation ferritic martensitic steels (RAFMs).

Sintering additives to improve densification and microstructure control of UN provides a facile approach to producing high quality nuclear fuels.

A novel approach is presented herein to improve time to onset of natural convection stemming from fuel element porosity during a failure mode of a nuclear reactor.

Fusion reactors need efficient systems to create tritium fuel and handle intense heat and radiation. Traditional liquid metal systems face challenges like high pressure losses and material breakdown in strong magnetic fields.

Currently there is no capability to test materials, sensors, and nuclear fuels at extremely high temperatures and under radiation conditions for nuclear thermal rocket propulsion or advanced reactors.

The traditional window installation process involves many steps. These are becoming even more complex with newer construction requirements such as installation of windows over exterior continuous insulation walls.

Recent advances in magnetic fusion (tokamak) technology have attracted billions of dollars of investments in startups from venture capitals and corporations to develop devices demonstrating net energy gain in a self-heated burning plasma, such as SPARC (under construction) and