Publication detail

Simulation of 3D Photonic Nanostructures Using a Bidirectional Eigenmode Propagation Algorithm

LUKSCH, J. PETRÁČEK, J.

Czech title

Simulace trojrozměrných fotonických nanostruktur pomocí obousměrného rozkladu ve vlastní mody

English title

Simulation of 3D Photonic Nanostructures Using a Bidirectional Eigenmode Propagation Algorithm

Type

conference paper

Language

en

Original abstract

We present a new implementation of a bidirectional eigenmode propagation algorithm for simulation of 3D waveguide structures. The eigenmodes are searched using a finite-difference or finite-element modesolver. The technique is applied to the modeling of high-Q nanocavity with 1D photonic gap.

Czech abstract

Prezentujeme numerickou metodu pro modelování trojrozměrných vlnovodných struktur založenou na rigorózním rozkladu do vlastních modů vlnovodů. Technika je aplikována k modelování fotoncikého nanorezonátoru s vysokým činitelem kvality.

English abstract

We present a new implementation of a bidirectional eigenmode propagation algorithm for simulation of 3D waveguide structures. The eigenmodes are searched using a finite-difference or finite-element modesolver. The technique is applied to the modeling of high-Q nanocavity with 1D photonic gap.

Keywords in English

eigenmode expansion and propagation, integrated optics, numerical modeling, optical waveguides

RIV year

2012

Released

01.05.2012

Publisher

The George Green Institute for Electromagnetics Research

Location

Nottingham

ISBN

978-0-9541146-4-0

Book

20th International Workshop on Optical Waveguide Theory and Numerical Modelling

Pages from–to

44–44

Pages count

1

BIBTEX


@inproceedings{BUT93616,
  author="Jaroslav {Luksch} and Jiří {Petráček},
  title="Simulation of 3D Photonic Nanostructures Using a Bidirectional Eigenmode Propagation Algorithm",
  booktitle="20th International Workshop on Optical Waveguide Theory and Numerical Modelling",
  year="2012",
  month="May",
  pages="44--44",
  publisher="The George Green Institute for Electromagnetics Research",
  address="Nottingham",
  isbn="978-0-9541146-4-0"
}