Learning Binary Relations and Total Orders

Abstract

Learning a binary relation between two sets of objects or between a set and itself represents a binary relation between a set of size n and a set of size m as an n x m matrix of bits, whose (i,j) entry is 1 if and only if the relation holds between the corresponding elements of the two sets. Polynomial prediction algorithms for learning binary relations are present in an extended on-line learning model, where the examples are drawn by the learner, by a helpful teacher, by an adversary, or according to a uniform probability distribution on the instance space. Results are presented for the case that the matrix of the relation has at most k row types with upper and lower bounds on the number of prediction mistakes any prediction algorithm makes when learning such a matrix under the extended on-line learning model. A technique is described that simplifies the proof of expected mistake bounds against a randomly chosen query sequence. (JHD)

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Document Details

Document Type
Technical Report
Publication Date
May 01, 1990
Accession Number
ADA221643

Entities

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  • Robert E. Schapire
  • Ronald L. Rivest
  • Sally A. Goldman

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  • Massachusetts Institute of Technology

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