Magneto-Ionization Spacecraft Shield for Interplanetary Travel: Computational

POSTER

Abstract

Manned interplanetary travel requires prolonged exposure to high intensity radiation. The purpose of this work is to determine a viable shielding solution using 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 develop a code to simulate a magnetic field around the proposed spacecraft employing the matrix relaxation method. We utilize the output from this code in a separate propagation code to calculate the trajectory of charged particles through various gaseous and solid media and the given magnetic field. We account for relativistic effects and utilize the popular SRIM code to calculate the energy loss of such particles as they travel through the shield. The aim of this work is to produce highly accurate results that illustrate the motion of charged particles around the proposed spacecraft. Initially a deterministic code is used but a Monte-Carlo method to compute averages and standard deviations for particle attenuation is also being developed.

Authors

  • Trace Johnson

    • Drake University
  • David Atri

    • Drake University
  • Justin Brutger

    • Drake University
  • Keegan Finger

    • Drake University
  • Luke Hofmann

    • Drake University
  • Julie LaFranzo

    • 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
  • Will Thomas

    • Drake University
  • Daniel Viscarra

    • Drake University