Implementation of a neural network reveals mass composition of cosmic rays, suggesting advanced analysis methods.
Precise measurements of the nuclear composition and energy spectrum of primary cosmic rays around the knee are essential to understand their origin, acceleration, and propagation. The GRAPES-3 experiment in Ooty, India, recently reported a spectral hardening in the proton spectrum at ~ 166 TeV using Gold's unfolding method based on muon multiplicity distributions. To enhance composition sensitivity by incorporating additional observables, we implement a Deep Neural Network (DNN) using both muon multiplicity and shower age, along with other high-level reconstructed shower parameters. This work presents the strategy, performance, and reliability of the DNN-based approach for mass composition studies at GRAPES-3.
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Rout et al. (2025) studied this question.
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