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Researcher
- Andrzej Nycz
- Blane Fillingim
- Brian Post
- Chris Masuo
- Lauren Heinrich
- Luke Meyer
- Peeyush Nandwana
- Sudarsanam Babu
- Thomas Feldhausen
- William Carter
- Yousub Lee
- Alexander I Kolesnikov
- Alexander I Wiechert
- Alexei P Sokolov
- Alex Roschli
- Alex Walters
- Bekki Mills
- Bruce Hannan
- Costas Tsouris
- Dave Willis
- Debangshu Mukherjee
- Erin Webb
- Evin Carter
- Gs Jung
- Gyoung Gug Jang
- Jeremy Malmstead
- John Wenzel
- Joshua Vaughan
- Keju An
- Kitty K Mccracken
- Loren L Funk
- Luke Chapman
- Mark Loguillo
- Matthew B Stone
- Md Inzamam Ul Haque
- Mengdawn Cheng
- Olga S Ovchinnikova
- Oluwafemi Oyedeji
- Paula Cable-Dunlap
- Peter Wang
- Polad Shikhaliev
- Radu Custelcean
- Ramanan Sankaran
- Shannon M Mahurin
- Soydan Ozcan
- Sydney Murray III
- Tao Hong
- Theodore Visscher
- Tomonori Saito
- Tyler Smith
- Vasilis Tzoganis
- Vasiliy Morozov
- Victor Fanelli
- Vimal Ramanuj
- Vladislav N Sedov
- Wenjun Ge
- Xianhui Zhao
- Yacouba Diawara
- Yun Liu

We presented a novel apparatus and method for laser beam position detection and pointing stabilization using analog position-sensitive diodes (PSDs).

Among the methods for point source carbon capture, the absorption of CO2 using aqueous amines (namely MEA) from the post-combustion gas stream is currently considered the most promising.

ORNL has developed a large area thermal neutron detector based on 6LiF/ZnS(Ag) scintillator coupled with wavelength shifting fibers. The detector uses resistive charge divider-based position encoding.

The use of biomass fiber reinforcement for polymer composite applications, like those in buildings or automotive, has expanded rapidly due to the low cost, high stiffness, and inherent renewability of these materials. Biomass are commonly disposed of as waste.

Neutron scattering experiments cover a large temperature range in which experimenters want to test their samples.

Neutron beams are used around the world to study materials for various purposes.

This work seeks to alter the interface condition through thermal history modification, deposition energy density, and interface surface preparation to prevent interface cracking.

Additive manufacturing (AM) enables the incremental buildup of monolithic components with a variety of materials, and material deposition locations.