Optimization of Technological Parameters of the Coaxial Magnetoplasma Accelerator by Varying of Solenoid Inductance

Y. Isaev, O. Vasileva
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Abstract

The paper studies optimization of technological parameters of the coaxial magnetoplasma accelerator by varying of solenoid inductance on the basis of experimental data. Data for research were received by experimental path for the accelerator two different models which is used for double purpose. The solenoid inductance was determined on the basis calculation of the magnetic vector potential succeeded by calculation of magnetic field energy. Optimum value of inductance for two models when value of kinetic energy reaches the maximum level was determined, it influences on escape speed of plasma jet. Analysis of the solenoid inductance was made, it influences on increasing transverse velocity component, and thus, the metal erosion and amount of disperse powders. The system of second order differential equations was written down as first order differential equations for calculation accuracy increasing and was solved using the fourth-order Runge-Kutta fixed-step method. View of potential pit was simulated in software package COMSOL Multiphysics which shows spatial limitation of the plasma particles expansion and illustrates the advantages of the longitudinal and transverse components of the charged particles velocity in the plasma jet. Simulation data allow to improve technological parameters of the investigated accelerator. The test of a model for adequacy was completed by calculation energy balance for system.
同轴磁等离子体加速器工艺参数的变电感优化
本文在实验数据的基础上,研究了通过改变螺线管电感来优化同轴磁等离子体加速器的工艺参数。对两种不同型号的双用途加速器,通过实验路径接收研究数据。在计算磁矢量势的基础上,再计算磁场能,确定螺线管的电感。确定了两种模型在动能达到最大值时的最佳电感值,其对等离子体射流逃逸速度的影响。分析了电磁电感对增大横向速度分量的影响,进而对金属侵蚀和分散粉末量的影响。为了提高计算精度,将二阶微分方程组写成一阶微分方程,采用四阶龙格-库塔定步法求解。在COMSOL Multiphysics软件中模拟了势坑视图,揭示了等离子体粒子膨胀的空间局限性,说明了等离子体射流中带电粒子速度的纵向和横向分量的优势。仿真数据为改进所研究加速器的工艺参数提供了依据。通过计算系统能量平衡,完成了模型充分性的检验。
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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