Estimating Spatially Resolved Radiation Fields Using Neural Networks

Felix Lehner, Pasquale Lombardo, Susana Castillo, Oliver Hupe, Marcus Magnor
12/19/2025
cs.LGphysics.comp-phphysics.med-ph

No official code found. Best implementation: Centrasis/radfield3d-nn (0 stars, MIT, last commit 2026-02-11).

Abstract

We present an in-depth analysis on how to build and train neural networks to estimate the spatial distribution of scattered radiation fields for radiation protection dosimetry in medical radiation fields, such as those found in interventional radiology and cardiology. We present three different synthetically generated datasets with increasing complexity for training, using a Monte-Carlo Simulation application based on Geant4. On those datasets, we evaluate convolutional and fully connected architectures of neural networks to demonstrate which design decisions work well for reconstructing the fluence and spectra distributions over the spatial domain of such radiation fields. All our datasets, as well as our training pipeline, are published as open source in separate repositories.

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MIT

Neural Networks for estimating spatially resolved radiation fields as presented in the paper "Estimating Spatially Resolved Radiation Fields Using Neural Networks"

00PythonDec 15, 20258 months agoMIT

Cite this paper

@article{lehner2025estimating,
  title  = {Estimating Spatially Resolved Radiation Fields Using Neural Networks},
  author = {Felix Lehner and Pasquale Lombardo and Susana Castillo and Oliver Hupe and Marcus Magnor},
  year   = {2025},
  eprint = {2512.17654},
  archivePrefix = {arXiv},
  url    = {http://arxiv.org/abs/2512.17654v2}
}

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