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Researcher
- Alex Plotkowski
- Amit Shyam
- Joseph Chapman
- Nicholas Peters
- Peeyush Nandwana
- Blane Fillingim
- Brian Post
- Hsuan-Hao Lu
- James A Haynes
- Joseph Lukens
- Lauren Heinrich
- Muneer Alshowkan
- Sudarsanam Babu
- Sumit Bahl
- Thomas Feldhausen
- Yousub Lee
- Alexander I Wiechert
- Alice Perrin
- Andres Marquez Rossy
- Anees Alnajjar
- Brian Williams
- Costas Tsouris
- Debangshu Mukherjee
- Gerry Knapp
- Gs Jung
- Gyoung Gug Jang
- Jovid Rakhmonov
- Mariam Kiran
- Md Inzamam Ul Haque
- Nicholas Richter
- Olga S Ovchinnikova
- Radu Custelcean
- Ramanan Sankaran
- Ryan Dehoff
- Sunyong Kwon
- Vimal Ramanuj
- Wenjun Ge
- Ying Yang

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

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.

Currently available cast Al alloys are not suitable for various high-performance conductor applications, such as rotor, inverter, windings, busbar, heat exchangers/sinks, etc.

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 invented alloys are a new family of Al-Mg alloys. This new family of Al-based alloys demonstrate an excellent ductility (10 ± 2 % elongation) despite the high content of impurities commonly observed in recycled aluminum.

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

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.

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.

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

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