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Researcher
- Diana E Hun
- Ali Passian
- Som Shrestha
- Isabelle Snyder
- Philip Boudreaux
- Tomonori Saito
- Bryan Maldonado Puente
- Joseph Chapman
- Nicholas Peters
- Nolan Hayes
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- Adam Siekmann
- Emilio Piesciorovsky
- Hsuan-Hao Lu
- Joseph Lukens
- Mahabir Bhandari
- Muneer Alshowkan
- Shiwanka Vidarshi Wanasinghe Wanasinghe Mudiyanselage
- Subho Mukherjee
- Venugopal K Varma
- Vivek Sujan
- Aaron Werth
- Aaron Wilson
- Achutha Tamraparni
- Adam Aaron
- Ali Riza Ekti
- Andre O Desjarlais
- Anees Alnajjar
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- Gary Hahn
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- Harper Jordan
- Joel Asiamah
- Joel Dawson
- Karen Cortes Guzman
- Kuma Sumathipala
- Mariam Kiran
- Mark M Root
- Mengjia Tang
- Nance Ericson
- Natasha Ghezawi
- Nils Stenvig
- Ozgur Alaca
- Peter Wang
- Raymond Borges Hink
- Srikanth Yoginath
- Stephen M Killough
- Varisara Tansakul
- Venkatakrishnan Singanallur Vaidyanathan
- Viswadeep Lebakula
- Yarom Polsky
- Yifang Liu
- Zhenglai Shen

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

We’ve developed a more cost-effective cable driven robot system for installing prefabricated panelized building envelopes. Traditional cable robots use eight cables, which require extra support structures, making setup complex and expensive.

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.

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

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

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.