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Researcher
- Adam Willoughby
- Mike Zach
- Rishi Pillai
- Sergiy Kalnaus
- Andrew F May
- Ben Garrison
- Beth L Armstrong
- Brad Johnson
- Brandon Johnston
- Bruce A Pint
- Bruce Moyer
- Charles Hawkins
- Charlie Cook
- Christopher Hershey
- Craig Blue
- Daniel Rasmussen
- Debjani Pal
- Georgios Polyzos
- Hsin Wang
- James Klett
- Jaswinder Sharma
- Jeffrey Einkauf
- Jennifer M Pyles
- Jiheon Jun
- John Lindahl
- Justin Griswold
- Kuntal De
- Laetitia H Delmau
- Luke Sadergaski
- Marie Romedenne
- Nancy Dudney
- Nedim Cinbiz
- Padhraic L Mulligan
- Priyanshi Agrawal
- Sandra Davern
- Tony Beard
- Yong Chae Lim
- Zhili Feng

Ruthenium is recovered from used nuclear fuel in an oxidizing environment by depositing the volatile RuO4 species onto a polymeric substrate.

A novel method that prevents detachment of an optical fiber from a metal/alloy tube and allows strain measurement up to higher temperatures, about 800 C has been developed. Standard commercial adhesives typically only survive up to about 400 C.

We developed and incorporated two innovative mPET/Cu and mPET/Al foils as current collectors in LIBs to enhance cell energy density under XFC conditions.

Test facilities to evaluate materials compatibility in hydrogen are abundant for high pressure and low temperature (<100C).

The technologies provide a system and method of needling of veiled AS4 fabric tape.

The co-processing of cathode and composite electrolyte for solid state polymer batteries has been developed. A traditional uncalendared cathode of e.g.

Spherical powders applied to nuclear targetry for isotope production will allow for enhanced heat transfer properties, tailored thermal conductivity and minimize time required for target fabrication and post processing.

ORNL will develop an advanced high-performing RTG using a novel radioisotope heat source.

The technologies provide a coating method to produce corrosion resistant and electrically conductive coating layer on metallic bipolar plates for hydrogen fuel cell and hydrogen electrolyzer applications.

Biocompatible nanoparticles have been developed that can trap and retain therapeutic radionuclides and their byproducts at the cancer site. This is important to maximize the therapeutic effect of this treatment and minimize associated side effects.