Patents by Inventor Raymond T. Newell
Raymond T. Newell has filed for patents to protect the following inventions. This listing includes patent applications that are pending as well as patents that have already been granted by the United States Patent and Trademark Office (USPTO).
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Patent number: 11743049Abstract: Message authenticators for quantum-secured communications facilitate low-latency authentication with assurances of security. Low-latency message authenticators are especially valuable in infrastructure systems where security and latency constraints are difficult to satisfy with conventional non-quantum cryptography. For example, a message transmitter receives a message and derives an authentication tag for the message based at least in part on an authenticator that uses one or more quantum keys. The message transmitter outputs the message and its authentication tag. A message receiver receives a message and authentication tag for the message. The message receiver derives a comparison tag for the message based at least in part on an authenticator that uses one or more quantum keys. The message receiver checks whether the message is authentic based on a comparison of the authentication tag and the comparison tag. In example implementations, the authenticator uses stream-wise cyclic redundancy code operations.Type: GrantFiled: February 24, 2020Date of Patent: August 29, 2023Assignee: Triad National Security, LLCInventors: Richard J. Hughes, Jane E. Nordholt, Charles G. Peterson, Kush T. Tyagi, Christopher C. Wipf, Raymond T. Newell, Kevin P. McCabe, Nicholas Dallmann
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Patent number: 10972189Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: GrantFiled: January 21, 2020Date of Patent: April 6, 2021Assignee: Triad National Security, LLCInventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma
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Publication number: 20200266977Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: ApplicationFiled: January 21, 2020Publication date: August 20, 2020Applicant: Triad National Security, LLCInventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma
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Publication number: 20200252215Abstract: Message authenticators for quantum-secured communications facilitate low-latency authentication with assurances of security. Low-latency message authenticators are especially valuable in infrastructure systems where security and latency constraints are difficult to satisfy with conventional non-quantum cryptography. For example, a message transmitter receives a message and derives an authentication tag for the message based at least in part on an authenticator that uses one or more quantum keys. The message transmitter outputs the message and its authentication tag. A message receiver receives a message and authentication tag for the message. The message receiver derives a comparison tag for the message based at least in part on an authenticator that uses one or more quantum keys. The message receiver checks whether the message is authentic based on a comparison of the authentication tag and the comparison tag. In example implementations, the authenticator uses stream-wise cyclic redundancy code operations.Type: ApplicationFiled: February 24, 2020Publication date: August 6, 2020Applicant: Triad National Security, LLCInventors: Richard J. Hughes, Jane E. Nordholt, Charles G. Peterson, Kush T. Tyagi, Christopher C. Wipf, Raymond T. Newell, Kevin P. McCabe, Nicholas Dallmann
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Patent number: 10587402Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2 n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: GrantFiled: June 29, 2018Date of Patent: March 10, 2020Assignee: Triad National Security, LLCInventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma
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Publication number: 20180343116Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2 n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: ApplicationFiled: June 29, 2018Publication date: November 29, 2018Applicant: Los Alamos National Security, LLCInventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma
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Patent number: 10044504Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: GrantFiled: July 16, 2014Date of Patent: August 7, 2018Assignee: Los Alamos National Security, LLCInventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma
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Publication number: 20180198608Abstract: Multiple bit values can be encoded on a single photon in a quantum key distribution (QKD) system using a plurality of sidebands of an optical carrier frequency. Computational and conjugate bases can be defined, and photons decoded based on a selected state from either basis. If n sidebands are available, as many as log2 n bits can be encoded on a single photon. Errors in detected bit values due to selection of an incorrect basis state or other errors can be at least partially corrected by bit distillation to identity bit strings for which a transmitter and a receiver record the same values, without insecure transmission of these values.Type: ApplicationFiled: July 16, 2014Publication date: July 12, 2018Inventors: Jane E. Nordholt, Richard J. Hughes, Raymond T. Newell, Charles G. Peterson, Rolando D. Somma