HYPIC：一种用于圆柱坐标系中离子回旋共振能量化的快速混合 EM PIC-MCC 代码
HYPIC: A fast hybrid EM PIC-MCC code for ion cyclotron resonance energization in cylindrical coordinate system
AI总结：
本文提出了名为 HYPIC 的二维混合电磁 PIC-MCC 模拟程序，通过结合绝热电子近似与 PIC 离子，在较低计算成本下快速模拟了直线装置中的天线-等离子体相互作用及离子回旋共振能量化过程。
摘要：
诸如离子回旋共振加热（ICRH）的离子回旋共振能量化（ICRE）被广泛应用于磁约束聚变和大功率电推进。由于 ICRE 涉及回旋共振过程，因此需要动力学模型。传统的粒子模拟（PIC）和求解 Boltzmann 方程都需要巨大的计算量和内存。结合绝热电子和 PIC 离子的混合模拟既能大幅减少计算量，又能包含回旋共振效应。在绝热电子近似下，我们开发了一个二维（r,z）混合电磁（EM）PIC-MCC（蒙特卡罗碰撞）模拟程序，命名为 HYPIC。HYPIC 的优势在于以较小的计算量包含了离子动力学效应、静电（ES）和 EM 效应，以及离子和电子的碰撞效应。HYPIC 程序能够快速模拟直线装置中的天线-等离子体相互作用以及离子回旋共振能量化和/或离子回旋共振加热过程，例如大功率电推进、磁镜和场反位形（FRC）等。
英文摘要：
Ion cyclotron resonance energization (ICRE) such as ion cyclotron resonance heating (ICRH) is widely applied to magnetic confinement fusion and high-power electric propulsion. Since ICRE involves cyclotron resonance processes, a kinetic model is required. Both conventional particle-in-cell (PIC) simulations and solving the Boltzmann equation require enormous computation and memory. The hybrid simulation incorporating of adiabatic electrons and PIC ions allows both a substantial reduction in computation and the inclusion of cyclotron resonance effects. Under the adiabatic electron approximation, we have developed a two-dimensional (r,z) hybrid electromagnetic (EM) PIC-MCC (Monte-Carlo collision) simulation program, named HYPIC. The advantages of HYPIC are the inclusion of ion kinetic effects, electrostatic (ES) and EM effects, and collisional effects of ions and electrons, with a small computation. The HYPIC program is able to fast simulate the antenna-plasma interactions and the ion cyclotron resonance energization and/or ion cyclotron resonance heating processes in linear devices, such as high-power electric propulsion, magnetic mirror, and field-reversed-configuration (FRC), etc.
机构、总结、中文摘要均由AI分析而来，可能存在错误，请以论文正文为准。
