ISCAS OpenIR
analysis of optimum pairing products at high security levels
Zhang Xusheng; Lin Dongdai
2012
Conference Name13th International Conference on Cryptology in India, INDOCRYPT 2012
SourceLecture Notes in Computer Science (including subseries Lecture Notes in Artificial Intelligence and Lecture Notes in Bioinformatics)
Pages412-430
Conference DateDecember 9, 2012 - December 12, 2012
Conference PlaceKolkata, India
Indexed TypeEI
ISSN0302-9743
ISBN9783642349300
Department(1) Institute of Software Chinese Academy of Sciences Beijing 100190 China; (2) University of Chinese Academy of Sciences Beijing 100049 China; (3) Institute of Information Engineering Chinese Academy of Sciences Beijing 100093 China
English AbstractIn modern pairing implementations, considerable researches target at the optimum pairings at different security levels. However, in many cryptographic protocols, computing products or quotients of pairings is needed instead of computing single pairings. In this paper, we mainly analyze the computations of fast pairings on Kachisa-Schaefer-Scott curves with embedding degree 16 (KSS16) for the 192-bit security and Barreto-Lynn-Scott curves with embedding degree 27 (BLS27) for the 256-bit security, and then compare the cost estimations for implementing products and quotients of pairings at the 192 and 256-bit security levels. Being different from implementing single pairings, our results show that KSS16 curves could be most efficient for computing products or quotients of pairings for the 192-bit security; and for the 256-bit security, BLS27 curves might be more efficient for computing products of no less than 25 pairings, otherwise BLS24 curves are much more efficient. In addition, for the fast pairing computation on BLS27 curves, we propose faster Miller formulas in both affine and projective coordinates on curves with only cubic twist and embedding degree divisible by 3. © Springer-Verlag 2012.; In modern pairing implementations, considerable researches target at the optimum pairings at different security levels. However, in many cryptographic protocols, computing products or quotients of pairings is needed instead of computing single pairings. In this paper, we mainly analyze the computations of fast pairings on Kachisa-Schaefer-Scott curves with embedding degree 16 (KSS16) for the 192-bit security and Barreto-Lynn-Scott curves with embedding degree 27 (BLS27) for the 256-bit security, and then compare the cost estimations for implementing products and quotients of pairings at the 192 and 256-bit security levels. Being different from implementing single pairings, our results show that KSS16 curves could be most efficient for computing products or quotients of pairings for the 192-bit security; and for the 256-bit security, BLS27 curves might be more efficient for computing products of no less than 25 pairings, otherwise BLS24 curves are much more efficient. In addition, for the fast pairing computation on BLS27 curves, we propose faster Miller formulas in both affine and projective coordinates on curves with only cubic twist and embedding degree divisible by 3. © Springer-Verlag 2012.
KeywordCryptography
SponsorshipDefence Research and Developement Organization (D.R.D.O.); Google Inc.; Microsoft Research; National Board of Higher Mathematics (N.B.H.M.); Reserve Bank of India (R.B.I.); Tata Consultancy Services (T.C.S.)
Language英语
Content Type会议论文
URIhttp://ir.iscas.ac.cn/handle/311060/15823
Collection中国科学院软件研究所
Recommended Citation
GB/T 7714
Zhang Xusheng,Lin Dongdai. analysis of optimum pairing products at high security levels[C],2012:412-430.
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