Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Lecture notes in computer science

Encryption Switching Protocols Revisited: Switching Modulo p

Guilhem Castagnos, Laurent Imbert A, Fabien Laguillaumie

Published Jan 1, 2017• 19 citations
Publisher
DOI
10.1007/978-3-319-63688-7_9

Related papers

Encryption Switching Protocols

Geoffroy Couteau, Thomas Peters, David Pointcheval

Lecture notes in computer science•Jan 1, 2016•30 citations

Unclonable Encryption, Revisited

Prabhanjan Ananth, Fatih Kaleoglu

arXiv:2103.15009•Lecture notes in computer science•Jan 1, 2021•20 citations

Robust Encryption, Revisited

Pooya Farshim, Benoît Libert, Kenneth G. Paterson +1 more

Lecture notes in computer science•Jan 1, 2013•35 citations

Deterministic Public-Key Encryption Revisited.

Adam O’Neill

•Jan 1, 2010•13 citations

Quantum linear polynomial evaluation based on XOR oblivious transfer compatible with classical partially homomorphic encryption

Li Zhi Yu, Xu, Jie, Fuqun Wang +1 more

XOR oblivious transfer is a universal cryptographic primitive that can be related to linear polynomial evaluation. We firstly introduce some bipartite quantum protocols for XOR oblivious transfer, which are not secure if one party cheats, and some of them can be combined with a classical XOR homomorphic encryption scheme for evaluation of linear polynomials modulo 2 with hybrid security. We then introduce a general protocol using modified versions of the XOR oblivious transfer protocols to evaluate linear polynomials modulo 2 with partial information-theoretic security. When combined with the ability to perform arbitrary quantum computation, this would lead to deterministic interactive two-party computation which is quite secure in the information-theoretic sense when the allowed set of inputs is large. For the task of classical function evaluation, although the quantum computation approach is still usable, we also discuss purely classical post-processing methods based on the proposed linear polynomial evaluation protocols.

arXiv:2305.11114•May 18, 2023•0 citations

Highly Secure Network Switches with Quantum Key Distribution Systems

Mikio Fujiwara, T. Domeki, Shiho Moriai +1 more

We have developed network "switches" with security enhanced by "quantum key distribution (QKD) systems". In a Layer 2 "switch", media access control (MAC) ad-dresses are encrypted to prevent unauthorized access from internal network. After an initial authentication, common random key bits are shared between the Layer 2 "switch" and users. MAC addresses are encrypted with shared key at every packet. In Layer 3, secure keys from a "QKD sys-tem" are used in the Internet Protocol Security (IPSEC) protocol for encrypting a payload in one-time pad, and also for extracting a message digest for unconditionally secure message authentication. In this way, network security can be effectively enhanced by QKD in an IP compatible manner.

International journal of network security•Jan 1, 2015•5 citations
XOR oblivious transfer is a universal cryptographic primitive that can be related to linear polynomial evaluation. We firstly introduce some bipartite quantum protocols for XOR oblivious transfer, which are not secure if one party cheats, and some of them can be combined with a classical XOR homomorphic encryption scheme for evaluation of linear polynomials modulo 2 with hybrid security. We then introduce a general protocol using modified versions of the XOR oblivious transfer protocols to evaluate linear polynomials modulo 2 with partial information-theoretic security. When combined with the ability to perform arbitrary quantum computation, this would lead to deterministic interactive two-party computation which is quite secure in the information-theoretic sense when the allowed set of inputs is large. For the task of classical function evaluation, although the quantum computation approach is still usable, we also discuss purely classical post-processing methods based on the proposed linear polynomial evaluation protocols.
We have developed network "switches" with security enhanced by "quantum key distribution (QKD) systems". In a Layer 2 "switch", media access control (MAC) ad-dresses are encrypted to prevent unauthorized access from internal network. After an initial authentication, common random key bits are shared between the Layer 2 "switch" and users. MAC addresses are encrypted with shared key at every packet. In Layer 3, secure keys from a "QKD sys-tem" are used in the Internet Protocol Security (IPSEC) protocol for encrypting a payload in one-time pad, and also for extracting a message digest for unconditionally secure message authentication. In this way, network security can be effectively enhanced by QKD in an IP compatible manner.