A Deep learning library for neutrino telescopes
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Updated
Sep 11, 2026 - Python
A Deep learning library for neutrino telescopes
Scalable Particle Imaging with Neural Embeddings
Tree-level completions of LNV operators for neutrino-mass model building
K₇ (formerly GIFT), the founding framework of the Arithmon program. Standard Model parameters as topological invariants of a G₂ manifold. Zero free parameters, formally verified, falsifiable.
Python toolkit for CEvNS calculations in an effective field theory framework, associated with arXiv:2409.04703 and arXiv:2601.19883. Includes event-rate calculations, detector responses, EFT matching, and statistical analyses for COHERENT.
Application of ML for Neutrino Physics experiment LEGEND-200
An open source machine learning framework that provides predictions for all-energy neutrino structure functions.
C++/ROOT data analysis pipeline for characterizing the cosmic muon flux during the filling phase of the JUNO Central Detector.
Cosmological applications of the SymC framework. Applies χ ≈ 1 stability principles to universe-scale phenomena including cosmic acceleration onset, black hole thermodynamics, and cyclical cosmology. Demonstrates framework consistency from quantum boundaries to cosmic structure.Retry
Tensor based engine for calculating neutrino oscillation probabilities in a fast, flexible, and differentiable way
An analysis framework to carry out BDT-based reweighting between neutrino event samples in the form of Nuisance FlatTrees.
Master thesis preparation project on reducing simulation-to-data discrepancies in IceCube using transformer-based event classification, direction reconstruction, and GBDT reweighting.
To explain the origin of Neutrino Mass and their huge separation from charged leptons ( 10 6 times lighter).
Convolutional networks (and CapsNET) for SuperNEMO tracker
Deep-learning classification of simulated NOvA neutrino detector images. Three CNN architectures compared; a multi-view CNN reaches 84% accuracy (macro F1 0.82) with ~100x fewer parameters.
UM Neutrino website
Empirical observation: Standard Model flavor mixing parameters (CKM, PMNS, Weinberg angle) expressed using simple fractions with 3, 11, and 13. Falsifiable predictions for JUNO/DUNE.
Python-based charge propagation model for gaseous particle detectors
A modular CAFAna/SBNAna-based selection framework for the BNB CC1eNp0pi channel in ICARUS, supporting both Pandora (legacy) and NuGraph2 reconstruction workflows for the ICARUS experiment.
A quantum computing implementation of two- and three-flavor neutrino oscillation physics, including CP violation and MSW matter effects, validated against published literature and executed on real IBM Quantum hardware.
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