Numerical optimization of Hall effect thruster with variation in magnetic field

Harshit Shukla, Yashika Paharia, Akansha Raman
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Abstract

In the present study, numerical analyses were conducted to enhance the strength of the magnetic field. While electromagnetic coils and permanent magnets have conventionally been used for this purpose, the study explores the utilization of superconducting magnets, known for their significantly stronger magnetic fields. Through analytical tests on a thruster powered by a 5-kW source at 400 V, and 12.5 A current, computer simulations are conducted using an open-source HallThruster.jl developed using Julia language which gave 1D simulation of plasma properties of Hall effect thruster (HET), along a thrust of 0.687 N was achieved representing a three times greater increase, and specific impulse increasing to 3097 s which is 1.7 times more compared to conventional results, accompanied by improved plasma parameters. Furthermore, to study the particle behavior the Particle In cell (PIC) approach was utilized, from which particle motion due to the magnetic field was achieved. By enhancing the magnetic field, we can significantly boost thrust, unlocking new possibilities for exploring distant planets and conducting long-duration space missions. Utilizing superconducting materials ensures continuous, efficient operation with increased thrust and fewer operating payloads, ultimately enhancing overall spacecraft functionality. This advancement paves the way for future innovations in space exploration and applications.

Abstract Image

随磁场变化的霍尔效应推力器的数值优化
在本研究中,对磁场强度的增强进行了数值分析。虽然电磁线圈和永磁体通常用于此目的,但该研究探索了超导磁体的利用,超导磁体以其明显更强的磁场而闻名。通过对功率为5kw、功率为400v、电流为12.5 a的推力器进行分析测试,利用开源的HallThruster进行了计算机模拟。利用Julia语言开发的jl对霍尔效应推力器(HET)的等离子体特性进行了一维模拟,得到了推力为0.687 N,比冲增加了3倍,达到3097 s,比常规结果增加了1.7倍,等离子体参数也得到了改善。此外,为了研究粒子的行为,我们采用了PIC方法来研究粒子在磁场作用下的运动。通过增强磁场,我们可以显著提高推力,为探索遥远的行星和执行长期太空任务提供新的可能性。利用超导材料确保持续、高效的运行,增加推力,减少运行有效载荷,最终提高航天器的整体功能。这一进步为未来空间探索和应用的创新铺平了道路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
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