Next-Generation Neutron Detector: Study of Position Resolution via Machine Learning

ORAL

Abstract

The MoNA Collaboration is designing the Next-Generation Neutron Detector (NGn) to improve the position resolution of neutron detection in invariant-mass spectroscopy experiments. More accurate position resolution of neutrons improves the overall reconstructed decay energy of unbound states, which leads to better understanding of exotic nuclei near the neutron dripline. A small scale prototype of the future NGn was fabricated out of scintillating plastic and a modular array of Silicon Photomultipliers (SiPMs) with DAQ based on a Front-End Readout System (FERS). Davidson College conducted tests on the prototype board by moving a UV laser across the face of the scintillator in a grid pattern. At Hope College, we have been analyzing this laser data, along with additional data collected at Hope College using a collimated 90Sr source. The currently predicted position resolution using the machine learning algorithm is ~3mm. Preliminary results of these ongoing tests will be presented.

*This material is based upon work supported by the National Science Foundation under RUI Grant No. PHY-2209138 and MRI Grant No. PHY-2320406

Presenters

  • Bishop D Carl

    • Hope College

Authors

  • Bishop D Carl

    • Hope College
  • Spencer Hughes

    • Hope College
  • Truman Sandy

    • Davidson College
  • Kaesy Arlet Diaz Castellanos

    • Davidson College
  • Paul A Deyoung

    • Hope College
  • Anthony N Kuchera

    • Davidson College
  • Thomas Baumann

    • Michigan State University
    • Facility for Rare Isotope Beams