Fuzzy logic for reconstructing arbitrary moments of multiplicity distributions

The identity method is a statistical technique developed to reconstruct moments of multiplicity distributions of particles produced in high-energy nuclear collisions. The method leverages principles from fuzzy logic, allowing for a more nuanced representation of particle identification by assigning degrees of membership to different particle types based on detector signals. In this contribution, a new framework, based on a multivariate moment generating function, is developed that allows the derivation of the formulas used in the identity method in a more robust way. Moreover, within the introduced framework, the identity method is easily extended to cope with arbitrarily higher-order moments. The techniques developed here offer significant potential for improving the accuracy of multiplicity distribution analyses in high-energy nuclear collisions. While the primary focus of the work presented is on applications in high-energy particle and nuclear physics, it can also be applied in other areas where signal identification is probabilistic and data are noisy, such as in medical imaging, remote sensing, and various other fields of experimental science.

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Publication Details

Journal
Physical review. C
Published
2024-12-20
DOI
https://doi.org/10.1103/physrevc.110.064910
Primary Topic
Statistical Distribution Estimation and Applications
Type
article
Field-Weighted Citation Impact
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article

Fuzzy logic for reconstructing arbitrary moments of multiplicity distributions

A. Rustamov
Physical review. C
Statistical Distribution Estimation and Applications
article

Fuzzy logic for reconstructing arbitrary moments of multiplicity distributions

A. Rustamov
article en

Abstract

The identity method is a statistical technique developed to reconstruct moments of multiplicity distributions of particles produced in high-energy nuclear collisions. The method leverages principles from fuzzy logic, allowing for a more nuanced representation of particle identification by assigning degrees of membership to different particle types based on detector signals. In this contribution, a new framework, based on a multivariate moment generating function, is developed that allows the derivation of the formulas used in the identity method in a more robust way. Moreover, within the introduced framework, the identity method is easily extended to cope with arbitrarily higher-order moments. The techniques developed here offer significant potential for improving the accuracy of multiplicity distribution analyses in high-energy nuclear collisions. While the primary focus of the work presented is on applications in high-energy particle and nuclear physics, it can also be applied in other areas where signal identification is probabilistic and data are noisy, such as in medical imaging, remote sensing, and various other fields of experimental science.

Physical review. CVol. 110(6)
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Statistical Distribution Estimation and Applications
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