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FDTD Method and Models in Optical Education

机译:光学教学中的FDTD方法和模型

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摘要

In this paper, finite-difference time-domain (FDTD) method has been proposed as a pedagogical way in optical education. Meanwhile, FDTD solutions, a simulation software based on the FDTD algorithm, has been presented as a new tool which helps abecedarians to build optical models and to analyze optical problems. The core of FDTD algorithm is that the time-dependent Maxwell's equations are discretized to the space and time partial derivatives, and then, to simulate the response of the interaction between the electronic pulse and the ideal conductor or semiconductor. Because the solving of electromagnetic field is in time domain, the memory usage is reduced and the simulation consequence on broadband can be obtained easily. Thus, promoting FDTD algorithm in optical education is available and efficient. FDTD enables us to design, analyze and test modern passive and nonlinear photonic components (such as bio-particles, nanoparticle and so on) for wave propagation, scattering, reflection, diffraction, polarization and nonlinear phenomena. The different FDTD models can help teachers and students solve almost all of the optical problems in optical education. Additionally, the GUI of FDTD solutions is so friendly to abecedarians that learners can master it quickly.
机译:本文提出了时域有限差分法(FDTD)作为光学教育的教学方法。同时,已经提出了基于FDTD算法的仿真软件FDTD解决方案,作为一种新工具,可以帮助初学者建立光学模型并分析光学问题。 FDTD算法的核心是将与时间相关的麦克斯韦方程组离散化为空间和时间偏导数,然后模拟电子脉冲与理想导体或半导体之间相互作用的响应。由于电磁场的求解是时域的,因此减少了存储器的使用,并且可以很容易地获得宽带上的仿真结果。因此,在光学教学中推广FDTD算法是有效的。 FDTD使我们能够设计,分析和测试用于波传播,散射,反射,衍射,极化和非线​​性现象的现代无源和非线性光子组件(例如生物粒子,纳米粒子等)。不同的FDTD模型可以帮助教师和学生解决光学教育中几乎所有的光学问题。此外,FDTD解决方案的GUI对初学者非常友好,以使学习者可以快速掌握它。

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