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Company US Army Research Laboratory / / Country United States / / / Event FDA Phase / / Facility US Army Research Laboratory / University of Maryland / Building Blocks Garbling Schemes Here / / IndustryTerm generation algorithm / probabilistic algorithm / homomorphic evaluation algorithm / decryption algorithm / polynomial-time algorithm / polynomial-time algorithms / oblivious transfer protocol / evaluation algorithm / cryptographic applications / circuit computing / deterministic algorithm / encryption algorithm / polynomialtime algorithm / / Organization University of Maryland / National Science Foundation / US Government / UK Government / Department of Computer Science / United States Army / UK Ministry of Defence / / Person Hong-Sheng Zhou§ Abstract Fully / Jonathan Katz† Aishwarya Thiruvengadam / / Position Private / / Product Nie02 / CLOS02 / OT2 / Yao86 / / ProvinceOrState Maryland / / Technology oblivious transfer protocol / randomized algorithm / semi-honest OT protocol / homomorphic evaluation algorithm / valid encryption / 2-move OT protocol / encryption algorithm / multi-message receiver non-committing encryption / four polynomial-time algorithms / receiver-non-committing encryption / private key / secret key / polynomialtime algorithm / Semi-honest two-move OT protocol / probabilistic algorithm / Encryption / cryptography / adaptively secure encryption / key generation algorithm / public key / circuit-private homomorphic encryption / public-key encryption / non-uniform / polynomial-time algorithms / multi-message receiver non-commiting encryption / 2 The protocol / evaluation algorithm / non-committing encryption / deterministic algorithm / regular public key encryption / receiver non-committing encryption / non-uniform / polynomial-time algorithm / simulation / decryption algorithm / key-generation algorithm / interactive protocol / / SocialTag 
Feasibility and Infeasibility of Adaptively Secure Fully Homomorphic Encryption∗ Jonathan Katz† Aishwarya Thiruvengadam‡