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Researcher
- Brian Post
- Peter Wang
- Ahmed Hassen
- Andrzej Nycz
- Blane Fillingim
- Chris Masuo
- Ryan Dehoff
- Singanallur Venkatakrishnan
- Sudarsanam Babu
- Thomas Feldhausen
- Vlastimil Kunc
- Amir K Ziabari
- Diana E Hun
- J.R. R Matheson
- Joshua Vaughan
- Lauren Heinrich
- Peeyush Nandwana
- Philip Bingham
- Philip Boudreaux
- Stephen M Killough
- Steven Guzorek
- Vincent Paquit
- Yousub Lee
- Adam Stevens
- Alex Roschli
- Amit Shyam
- Brian Gibson
- Bryan Maldonado Puente
- Cameron Adkins
- Christopher Fancher
- Chris Tyler
- Corey Cooke
- Craig Blue
- Dan Coughlin
- David Olvera Trejo
- Gina Accawi
- Gordon Robertson
- Gurneesh Jatana
- Isha Bhandari
- Jay Reynolds
- Jeff Brookins
- Jesse Heineman
- Jim Tobin
- John Lindahl
- John Potter
- Josh Crabtree
- Kim Sitzlar
- Liam White
- Luke Meyer
- Mark M Root
- Merlin Theodore
- Michael Borish
- Michael Kirka
- Nolan Hayes
- Obaid Rahman
- Rangasayee Kannan
- Ritin Mathews
- Roger G Miller
- Ryan Kerekes
- Sally Ghanem
- Sarah Graham
- Scott Smith
- Subhabrata Saha
- Vipin Kumar
- William Carter
- William Peter
- Yukinori Yamamoto

ORNL researchers have developed a deep learning-based approach to rapidly perform high-quality reconstructions from sparse X-ray computed tomography measurements.

We have been working to adapt background oriented schlieren (BOS) imaging to directly visualize building leakage, which is fast and easy.

This manufacturing method uses multifunctional materials distributed volumetrically to generate a stiffness-based architecture, where continuous surfaces can be created from flat, rapidly produced geometries.

The lack of real-time insights into how materials evolve during laser powder bed fusion has limited the adoption by inhibiting part qualification. The developed approach provides key data needed to fabricate born qualified parts.

A valve solution that prevents cross contamination while allowing for blocking multiple channels at once using only one actuator.

Materials produced via additive manufacturing, or 3D printing, can experience significant residual stress, distortion and cracking, negatively impacting the manufacturing process.

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.

Through the use of splicing methods, joining two different fiber types in the tow stage of the process enables great benefits to the strength of the material change.