Fundamental limit of jet tagging

Identifying the origin of high-energy hadronic jets (jet tagging) has been a critical benchmark problem for machine learning in particle physics. Jets are ubiquitous at colliders and are complex objects that serve as prototypical examples of collections of particles to be categorized. Over the last decade, machine learning-based classifiers have replaced classical observables as the state of the art in jet tagging. Increasingly complex machine learning models are leading to increasingly more effective tagger performance. Our goal is to address the question of convergence—are we getting close to the fundamental limit on jet tagging or is there still potential for computational, statistical, and physical insights for further improvements? We address this question using state-of-the-art generative models to create a realistic, synthetic dataset with a known jet tagging optimum. Various state-of-the-art taggers are deployed on this dataset, showing that there is a significant gap between their performance and the optimum. Our dataset and software are made public to provide a benchmark task for future developments in jet tagging and other areas of particle physics.

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Publication Details

Journal
Physical review. D/Physical review. D.
Published
2025-11-07
DOI
https://doi.org/10.1103/mjj1-w2b1
Citations
2
Primary Topic
Particle physics theoretical and experimental studies
Type
article
Field-Weighted Citation Impact
3.74
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article

Fundamental limit of jet tagging

Humberto Reyes-González, Benjamin Nachman, V. M. Mikuni, Alexander Mück et al.
2 citations
Physical review. D/Physical review. D.
Particle physics theoretical and experimental studies
3.74
article

Fundamental limit of jet tagging

Humberto Reyes-González, Benjamin Nachman, V. M. Mikuni, Alexander Mück, Michael Krämer, Joep Geuskens, Nishank Gite
article en
2 citations

Abstract

Identifying the origin of high-energy hadronic jets (jet tagging) has been a critical benchmark problem for machine learning in particle physics. Jets are ubiquitous at colliders and are complex objects that serve as prototypical examples of collections of particles to be categorized. Over the last decade, machine learning-based classifiers have replaced classical observables as the state of the art in jet tagging. Increasingly complex machine learning models are leading to increasingly more effective tagger performance. Our goal is to address the question of convergence—are we getting close to the fundamental limit on jet tagging or is there still potential for computational, statistical, and physical insights for further improvements? We address this question using state-of-the-art generative models to create a realistic, synthetic dataset with a known jet tagging optimum. Various state-of-the-art taggers are deployed on this dataset, showing that there is a significant gap between their performance and the optimum. Our dataset and software are made public to provide a benchmark task for future developments in jet tagging and other areas of particle physics.

Physical review. D/Physical review. D.Vol. 112(9)
Lawrence Berkeley National Laboratory (US), University of California System (US), National Energy Research Scientific Computing Center (US), RWTH Aachen University (DE)
Openalex Percentile: Top 7%
Particle physics theoretical and experimental studies
3.74
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