Simple Trapezoidal Recursive Convolution Technique for the Frequency-Dependent FDTD Analysis of a Drude-Lorentz Model

被引:64
|
作者
Shibayama, Jun [1 ]
Ando, Ryoji [1 ]
Nomura, Akifumi [1 ]
Yamauchi, Junji [1 ]
Nakano, Hisamatsu [1 ]
机构
[1] Hosei Univ, Fac Engn, Tokyo 1848584, Japan
关键词
Finite-difference time-domain (FDTD); piecewise linear recursive convolution (PLRC); surface plasmon polariton; trapezoidal recursive convolution (TRC); SIMULATION; ALGORITHM; FIELD;
D O I
10.1109/LPT.2008.2009003
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
A concise formulation of the frequency-dependent finite-difference time-domain (FDTD) method is presented using the trapezoidal recursive convolution (TRC) technique for the analysis of a Drude-Lorentz model. The TRC technique requires single convolution integral in the formulation as in the recursive convolution (RC) technique, while maintaining the accuracy comparable to the piecewise linear RC (PLRC) technique with two convolution integrals. The TRC technique is introduced not only to the traditional explicit FDTD, but also to the unconditionally stable implicit FDTD based on the locally one-dimensional (LOD) scheme. Through the analysis of a surface plasmon waveguide, the effectiveness of the TRC technique is investigated for both explicit FDTD and LOD-FDTD, along with the existing RC and PLRC techniques.
引用
收藏
页码:100 / 102
页数:3
相关论文
共 50 条
  • [21] FREQUENCY-DEPENDENT FRICTION CONSTANT ANALYSIS OF DIFFUSION IN SIMPLE LIQUIDS
    MARTIN, PC
    YIP, S
    PHYSICAL REVIEW, 1968, 170 (01): : 151 - +
  • [22] A Study of an FDTD-Based Frequency-Dependent Line Model for Electromagnetic Transient Simulations
    Noda, Taku
    ELECTRICAL ENGINEERING IN JAPAN, 2018, 202 (02) : 33 - 42
  • [23] Treatment of the Boundary Between Two Different Dispersion Models for the Frequency-Dependent FDTD Analysis
    Shibayama, Jun
    Shimizu, Keisuke
    Yamauchi, Junji
    Nakano, Hisamatsu
    2016 IEEE 5TH ASIA-PACIFIC CONFERENCE ON ANTENNAS AND PROPAGATION (APCAP 2016), 2016, : 169 - 170
  • [24] Analysis of frequency-dependent acceleration of relaxation by simulation model
    Yoshimura, Kai
    Noma, Akinori
    JOURNAL OF PHYSIOLOGICAL SCIENCES, 2013, 63 : S232 - S232
  • [25] Frequency-dependent locally one-dimensional FDTD implementation with a combined dispersion model for the analysis of surface plasmon waveguides
    Shibayama, Jun
    Takahashi, Ryo
    Yamauchi, Junji
    Nakano, Hisamatsu
    IEEE PHOTONICS TECHNOLOGY LETTERS, 2008, 20 (9-12) : 824 - 826
  • [26] Frequency-Dependent 3-D LOD-FDTD Method for the Analysis of Plasmonic Devices
    Shibayama, Jun
    Ando, Ryoji
    Yamauchi, Junji
    Nakano, Hisamatsu
    IEEE PHOTONICS TECHNOLOGY LETTERS, 2011, 23 (15) : 1070 - 1072
  • [27] Analysis of frequency-dependent field-to-transmission line coupling with Associated Hermite FDTD method
    Zhou, Yinghui
    Huang, Zhengyu
    Shi, Lihua
    Fu, Shangchen
    INTERNATIONAL JOURNAL OF APPLIED ELECTROMAGNETICS AND MECHANICS, 2015, 49 (04) : 443 - 451
  • [28] Efficient curve fitting technique for analysis of interconnect networks with frequency-dependent parameters
    Tanji, Y
    Nishio, Y
    Shimamoto, T
    Ushida, A
    IEICE TRANSACTIONS ON FUNDAMENTALS OF ELECTRONICS COMMUNICATIONS AND COMPUTER SCIENCES, 1998, E81A (12): : 2501 - 2508
  • [29] Frequency-dependent grounding system calculation by means of a conventional nodal analysis technique
    Otero, AF
    Cidrás, J
    del Alamo, JL
    IEEE TRANSACTIONS ON POWER DELIVERY, 1999, 14 (03) : 873 - 878
  • [30] A new curve fitting technique for analysis of frequency-dependent lossy transmission lines
    Tanji, Y
    Nishio, Y
    Ushida, A
    ISCAS '98 - PROCEEDINGS OF THE 1998 INTERNATIONAL SYMPOSIUM ON CIRCUITS AND SYSTEMS, VOLS 1-6, 1998, : E346 - E349