Filter Results
Related Organization
- Biological and Environmental Systems Science Directorate (26)
- Computing and Computational Sciences Directorate (38)
- Energy Science and Technology Directorate (223)
- Fusion and Fission Energy and Science Directorate (24)
- Information Technology Services Directorate (3)
- Isotope Science and Enrichment Directorate (7)
- National Security Sciences Directorate (20)
- Neutron Sciences Directorate (11)
- Physical Sciences Directorate (135)
- User Facilities (27)
Researcher
- Hongbin Sun
- Joseph Chapman
- Nicholas Peters
- Eddie Lopez Honorato
- Hsuan-Hao Lu
- Joseph Lukens
- Muneer Alshowkan
- Prashant Jain
- Ryan Heldt
- Tyler Gerczak
- Vlastimil Kunc
- Ahmed Hassen
- Alexander Enders
- Alexander I Wiechert
- Andrew F May
- Anees Alnajjar
- Ben Garrison
- Benjamin Manard
- Brad Johnson
- Brandon A Wilson
- Brian Williams
- Callie Goetz
- Charles F Weber
- Christopher Hobbs
- Christopher S Blessinger
- Costas Tsouris
- Dan Coughlin
- Fred List III
- Govindarajan Muralidharan
- Hsin Wang
- Ian Greenquist
- Ilias Belharouak
- Isaac Sikkema
- Jim Tobin
- Joanna Mcfarlane
- Jonathan Willocks
- Joseph Olatt
- Josh Crabtree
- Junghyun Bae
- Keith Carver
- Kim Sitzlar
- Kunal Mondal
- Mahim Mathur
- Mariam Kiran
- Matt Kurley III
- Matt Vick
- Merlin Theodore
- Mike Zach
- Mingyan Li
- Nate See
- N Dianne Ezell
- Nedim Cinbiz
- Nithin Panicker
- Oscar Martinez
- Pradeep Ramuhalli
- Praveen Cheekatamarla
- Richard Howard
- Rodney D Hunt
- Rose Montgomery
- Ruhul Amin
- Sam Hollifield
- Steven Guzorek
- Subhabrata Saha
- Thien D. Nguyen
- Thomas Butcher
- Thomas R Muth
- Ugur Mertyurek
- Vandana Rallabandi
- Venugopal K Varma
- Vipin Kumar
- Vishaldeep Sharma
- Vittorio Badalassi

In nuclear and industrial facilities, fine particles, including radioactive residues—can accumulate on the interior surfaces of ventilation ducts and equipment, posing serious safety and operational risks.

Here we present a solution for practically demonstrating path-aware routing and visualizing a self-driving network.

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.

Technologies directed to polarization agnostic continuous variable quantum key distribution are described.
Contact:
To learn more about this technology, email partnerships@ornl.gov or call 865-574-1051.

The development of quantum networking requires architectures capable of dynamically reconfigurable entanglement distribution to meet diverse user needs and ensure tolerance against transmission disruptions.

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).

Polarization drift in quantum networks is a major issue. Fiber transforms a transmitted signal’s polarization differently depending on its environment.

The lattice collimator places a grid of shielding material in front of a radiation detector to reduce the effect of background from surrounding materials and to enhance the RPM sensitivity to point sources rather than distributed sources that are commonly associated with Natur

This invention addresses a key challenge in quantum communication networks by developing a controlled-NOT (CNOT) gate that operates between two degrees of freedom (DoFs) within a single photon: polarization and frequency.