Predictive Modeling For An Inductively Coupled Plasma Generator

POSTER

Abstract

The study of high enthalpy plasma flows in a vacuum has applications in space, atmospheric, and fusion physics. Through a partnership between the Center for Space Physics, Astrophysics, and Engineering Research (CASPER) and the Institute of Space Systems at the University of Stuttgart (IRS), Baylor University has developed an inductively heated plasma generator (IPG-6B). As part of an ongoing research project, an extended range of operating parameters for the current configuration of the IPG6-B is now being utilized. Under these extreme conditions, problems that were once minimal, for example, thermal expansion and arcing, have become exaggerated. As a result, experiments have entered an unsustainable "burn then crash" cycle. In order to move forward, a technique to predict these failures is necessary. This poster will present preliminary findings from a SolidWorks simulation of the IPG-6B and data allowing comparison of these findings to Pitot Probe, Langmuir Probe, and Calorimeter data collected from the machine.

*This material is based upon work supported by the NSF under Grants No.1740203, 1707215 & 2008493, NASA under Contracts No. EW20_2-0053, EW-2962-LDRM, NASA / JPL 1571701, JPL 1647194 and the DOE under Grant No. DOE DE-S0021334.

Presenters

  • Graeson Griffin

    • Baylor University

Authors

  • Graeson Griffin

    • Baylor University
  • Jens Schmidt

    • Baylor University
  • Georg Herdrich

    • University of Stuttgart
  • Lorin S Matthews

    • Baylor University
  • Calvin Carmichael

    • Baylor University
  • Parker J Adamson

    • Baylor University
  • Truell W Hyde

    • Baylor University