Threshold sampling

We consider the problem of sampling elements with some desired property from a large set, without testing the property of interest, but with the (probabilistic) assurance to have at least one match among the random sample. Like in ranked set sampling (RSS), we consider an infinite population under study, whose properties of interest are too expensive and/or time-consuming to measure. Unlike RSS, we are void of a ranking mechanism, so our sampling is done entirely blind. We show how it is nonetheless doable to assure, with controllably large likelihood, to either have at least one of the interesting elements in a random sample, or, contrarily, sample with the likewise assurance of not having one of the interesting elements in the sample. Our technique utilizes density bounds for distributions and threshold functions from random graph theory. • Algorithm for sampling elements of a set with a desired property, but without ever testing this property. • Construction of a formal language that is poly-time “sampleable” in the above respect. • Provides a new algorithmic application of threshold functions from random graph theory. • Has possible applications for the construction of “hard” problems for cryptography.

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Publication Details

Journal
Theoretical Computer Science
Published
2024-09-06
DOI
https://doi.org/10.1016/j.tcs.2024.114847
Primary Topic
Anomaly Detection Techniques and Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Threshold sampling

Stefan Raß, Moritz Hiebler, Max-Julian Jakobitsch, Stefan Haan
Theoretical Computer Science
Anomaly Detection Techniques and Applications
article

Threshold sampling

Stefan Raß, Moritz Hiebler, Max-Julian Jakobitsch, Stefan Haan
article en

Abstract

We consider the problem of sampling elements with some desired property from a large set, without testing the property of interest, but with the (probabilistic) assurance to have at least one match among the random sample. Like in ranked set sampling (RSS), we consider an infinite population under study, whose properties of interest are too expensive and/or time-consuming to measure. Unlike RSS, we are void of a ranking mechanism, so our sampling is done entirely blind. We show how it is nonetheless doable to assure, with controllably large likelihood, to either have at least one of the interesting elements in a random sample, or, contrarily, sample with the likewise assurance of not having one of the interesting elements in the sample. Our technique utilizes density bounds for distributions and threshold functions from random graph theory. • Algorithm for sampling elements of a set with a desired property, but without ever testing this property. • Construction of a formal language that is poly-time “sampleable” in the above respect. • Provides a new algorithmic application of threshold functions from random graph theory. • Has possible applications for the construction of “hard” problems for cryptography.

Theoretical Computer ScienceVol. 1019
Johannes Kepler University of Linz (AT), University of Klagenfurt (AT)
Austrian Science Fund
Openalex Percentile: Top 87%
Anomaly Detection Techniques and Applications
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