Computational methods for developing optimal attenuation of radiation for interplanetary travel (The MISSFIT Collaboration)

POSTER

Abstract

One of the greatest problems with manned interplanetary travel is the prolonged exposure to high intensity radiation. The purpose of this work is to determine a viable shielding solution via a combination of magnetic-fields, ionization chambers and passive absorbers by developing the computational methods required to properly simulate the propagation of high-energy particles through such systems. We calculate a magnetic field employing a relaxation algorithm involving the magnetic vector potential.~We use the output in a separate relativistic propagation code to calculate the trajectory of charged particles through various media. We produce highly accurate results that illustrate particle trajectory around the spacecraft. We have used deterministic code for particle trajectory and energy loss calculation but now we are including a Monte-Carlo process. We study various particles at energies encountered in the solar wind and cosmic rays with varying magnetic field configurations.

*This project is supported by the Iowa Space Grant Consortium under NASA Award No. 80NSSC20M0107.

Authors

  • Keegan Finger

    • Drake University
  • Will Thomas

    • Drake University
  • David Atri

    • Drake University
  • Justin Brutger

    • Drake University
  • Trevin Detwiler

    • Drake University
  • Gannon Henry

    • Drake University
  • Luke Hofmann

    • Drake University
  • Trace Johnson

    • Drake University
  • Julie LaFranzo

    • Drake University
  • Meredith Luttrell

    • Drake University
  • Lorien MacEnulty

    • Drake University
  • Molly McCord

    • Drake University
  • Gavin Menning

    • Drake University
  • Ethan Morton

    • Drake University
  • Noah Peterson

    • Drake University
  • Athanasios Petridis

    • Drake University
  • Ajal RC

    • Drake University
  • Hunter Stout

    • Drake University
  • Daniel Viscarra

    • Drake University