NASA SBIR 2018-I Solicitation

Proposal Summary


PROPOSAL NUMBER:
 18-1- H9.05-6702
SUBTOPIC TITLE:
 Transformational/Over-the-Horizon Communications Technology
PROPOSAL TITLE:
 Atomic System for Quantum Secure Communications
SMALL BUSINESS CONCERN (Firm Name, Mail Address, City/State/Zip, Phone)
ColdQuanta, Inc.
3030 Sterling Circle
Boulder , CO 80301-2739
(303) 440-1284

Principal Investigator (Name, E-mail, Mail Address, City/State/Zip, Phone)
Dr. Thomas Noel
tom.noel@coldquanta.com
3030 Sterling Cir Boulder, CO 80301 - 2739
(303) 440-1284

Business Official (Name, E-mail, Mail Address, City/State/Zip, Phone)
Lisa Pendergast
lisa.pendergast@coldquanta.com
3030 Sterling Cir Boulder, CO 80301 - 2739
(303) 440-1284
Estimated Technology Readiness Level (TRL) :
Begin: 2
End: 3
Technical Abstract

The future of secure ground-space and space-space communications relies on development of quantum  secure communications (QSC) systems. ColdQuanta proposes to develop QSC devices based on compact, robust vacuum systems containing dense ensembles of cold, trapped rubidium atoms. In particular, we propose to develop a source of high-flux, high-coherence entangled photon pairs (biphotons). These biphotons can be used to transmit information in a provably secure manner that is consistent with existing QKD protocols and other real-time secure information transfer protocols. The proposed atomically sourced biphotons outperform photon pairs from existing solid-state sources by over a factor of 1000 in coherence time and spectral linewidth. The narrow spectral linewidth of the atomically sourced biphotons makes them compatible with direct interfacing with downstream atomic systems, opening vast new vistas in the potential for long-range QSC and quantum networking. A second direction that further pushes the state-of-the-art in highly-coherent quantum optical systems for QSC is our second proposed device that provides efficient storage and recall of single-photon states. The single photons are stored in a coherent collective excitation of a cold atomic ensemble and can later be retrieved when the downstream QSC system is ready. Together, these devices represent a dramatic step forward in the quality of commercially available QSC hardware components. Nevertheless, the parallel development of the devices will be highly efficient due to their shared reliance on identical underlying cold atom hardware. These devices (and potentially several other related quantum optical devices) will be different laser and optical packages wrapped around an identical vacuum system for production of atomic ensembles with extremely high optical density. Phase I will demonstrate the underlying atom ensemble hardware and will complete system-level designs of the proposed QSC hardware components.

Potential NASA Applications

Quantum communications provides provably secure transmission of information, something that can’t be ensured in any other way. Thus, the future of ground-space and space-space communication will be performed over quantum links. The Chinese MICIUS satellite has paved the initial path in the direction of employing quantum protocols for secure communications. The innovation proposed here would provide part of the necessary package for NASA to return to the fore-front of secure space communications.

Potential Non-NASA Applications

Implementing and utilizing quantum communication technologies (QCT) is of great interest to companies and governmental entities that transfer highly sensitive information as part of their operations (such as government agencies, financial and research firms, medical companies, stock trading services, etc.). The benefits provided by the proposed technology position it well for rapid integration into existing quantum communications applications.


Form Generated on 05/25/2018 11:31:38