A Labelled Sample Compression Scheme of Size at Most Quadratic in the VC Dimension
Farnam Mansouri, Sandra Zilles

TL;DR
This paper constructs a proper, stable labelled sample compression scheme of size quadratic in the VC dimension, improving previous exponential bounds and highlighting connections between machine teaching and sample compression.
Contribution
It introduces a quadratic-size compression scheme based on recursive teaching dimension, advancing the understanding of sample compression bounds.
Findings
Constructed a proper, stable compression scheme of size O(VCD^2)
Established a link between machine teaching models and compression scheme bounds
Provided lower bounds using no-clash teaching model
Abstract
This paper presents a construction of a proper and stable labelled sample compression scheme of size for any finite concept class, where denotes the Vapnik-Chervonenkis Dimension. The construction is based on a well-known model of machine teaching, referred to as recursive teaching dimension. This substantially improves on the currently best known bound on the size of sample compression schemes (due to Moran and Yehudayoff), which is exponential in . The long-standing open question whether the smallest size of a sample compression scheme is in remains unresolved, but our results show that research on machine teaching is a promising avenue for the study of this open problem. As further evidence of the strong connections between machine teaching and sample compression, we prove that the model of no-clash teaching, introduced by Kirkpatrick et al., can…
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Taxonomy
TopicsMachine Learning and Algorithms · Machine Learning and Data Classification · Algorithms and Data Compression
