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Efficient Deterministic Single Round Document Exchange for Edit Distance

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arxiv 1511.09229 v2 pith:E23TKHH5 submitted 2015-11-30 cs.DS cs.CC

classification cs.DScs.CC
keywords efficientprotocolfirststringdeterministiceditmessageparty
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abstract

Suppose that we have two parties that possess each a binary string. Suppose that the length of the first string (document) is $n$ and that the two strings (documents) have edit distance (minimal number of deletes, inserts and substitutions needed to transform one string into the other) at most $k$. The problem we want to solve is to devise an efficient protocol in which the first party sends a single message that allows the second party to guess the first party's string. In this paper we show an efficient deterministic protocol for this problem. The protocol runs in time $O(n\cdot \mathtt{polylog}(n))$ and has message size $O(k^2+k\log^2n)$ bits. To the best of our knowledge, ours is the first efficient deterministic protocol for this problem, if efficiency is measured in both the message size and the running time. As an immediate application of our new protocol, we show a new error correcting code that is efficient even for large numbers of (adversarial) edit errors.

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Cited by 1 Pith paper

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  1. Oblivious Deletion Codes

    cs.IT 2025-06 accept novelty 6.0 of 10

    New constructions show that oblivious deletion codes can correct any constant number of deletions with redundancy close to the information-theoretic lower bound, beating known adversarial-code barriers.

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