Numerical Simulation of a Low-Power Hydrazine Arcjet Thruster-Reference-Cited by-同舟云学术

Numerical Simulation of a Low-Power Hydrazine Arcjet Thruster

Published:2012 Issue: Volume:32 Page:732-742
ISSN:1875-3892
Container-title:Physics Procedia
language:en
Short-container-title:Physics Procedia

Author:

Wang Hai-Xing,Geng Jin-Yue,Chen Xi,Pan Wenxia

Publisher

Elsevier BV

Subject

General Engineering

Reference25 articles.

1. R.H. Frisbee (2003) Advanced Space Propulsion for the 21st Century. Journal of Propulsion and Power 19: 1029-1154.

2. G.W. Butler, R.J. Cassady (1996) Directions for Arcjet Technology Development. Journal of Propulsion and Power 12: 1026-1034.

3. M.A. Birkan (1996) Arcjets and Arc Heaters: An Overview of Research Status and Needs. Journal of Propulsion and Power 12: 1011-1017.

4. V.R. Watson, E.B. Pegot (1967) Numerical Calculations for the Characteristics of a Gas Flowing Axially Through a Constricted Arc. NASA Technical Note TN D-4042.

5. H.X. Wang, X. Chen, W.X. Pan, A.B. Murphy, J.Y. Geng, S.X. Jia (2010) Modelling Study to Compare the Flow and Heat Transfer Characteristics of Low-Power Hydrogen, Nitrogen and Argon Arc-Heated Thrusters. Plasma Science and Technology 12 (in press).

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