Short Non-Interactive Cryptographic Proofs

被引:0
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作者
Joan Boyar
Ivan Damgård
René Peralta
机构
[1] Department of Mathematics and Computer Science,
[2] University of Southern Denmark,undefined
[3] Odense,undefined
[4] Denmark joan@imada.sdu.dk,undefined
[5] Department of Computer Science,undefined
[6] BRICS,undefined
[7] Aarhus University,undefined
[8] DC-8000 Aarhus C,undefined
[9] Denmark ivan@daimi.au.dk,undefined
[10] Department of Computer Science,undefined
[11] Yale University,undefined
[12] New Haven,undefined
[13] CT 06520-8285,undefined
[14] U.S.A. peralta-rene@cs.yale.edu,undefined
来源
Journal of Cryptology | 2000年 / 13卷
关键词
Key words. Cryptographic proofs, Non-interactive proofs, Discreet proofs, Circuit complexity, Multiplicative complexity.;
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摘要
We show how to produce short proofs of theorems such that a distrusting Verifier can be convinced that the theorem is true yet obtains no information about the proof itself. We assume the theorem is represented by a boolean circuit, of size m gates, which is satisfiable if and only if the theorem holds. We use bit commitments of size k and bound the probability of false proofs going undetected by 2-r . We obtain non-interactive zero-knowledge proofs of size O(mk( log m +r)) bits. In the random oracle model, we obtain non-interactive proofs of size O(m( log m+r) + rk) bits. By simulating a random oracle, we obtain non-interactive proofs which are short enough to be used in practice. We call the latter proofs ``discreet.''
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页码:449 / 472
页数:23
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