Guang zha yan she ji han zhou qi jie gou de jin shu pian de tou she zeng qiang xiao ying de li lun yan jiu

Fong King Yan = 光栅衍射及含週期結構的金屬片的透射增強效應的理論研究 / 方敬恩.Thesis submitted in: September 2006.Thesis (M.Phil.)--Chinese University of Hong Kong, 2007.Includes bibliographical references (leaves 111-119).Abstracts in English and Chinese.Fong King Yan = Guang zha yan she ji han zhou qi jie gou de jin shu pian de tou she zeng qiang xiao ying de li lun yan jiu / Fang Jing'en.Chapter 1 --- Introduction --- p.1Chapter 2 --- Review on Grating Theories --- p.6Chapter 2.1 --- Basic Concepts --- p.6Chapter 2.1.1 --- Maxwell's Equations --- p.6Chapter 2.1.2 --- Translational Symmetry --- p.8Chapter 2.1.3 --- TM and TE Polarizations --- p.10Chapter 2.1.4 --- The Grating Equation --- p.11Chapter 2.2 --- Rayleigh's Method --- p.12Chapter 2.3 --- Integral Method --- p.13Chapter 2.4 --- Classical Modal Method --- p.15Chapter 2.5 --- Rigorous Coupled-Wave Analysis --- p.16Chapter 2.5.1 --- General Form of Electromagnetic Modes --- p.17Chapter 2.5.2 --- Fourier Factorization Rules --- p.20Chapter 2.5.3 --- Matching Boundary Conditions --- p.21Chapter 2.5.4 --- Multilayered Gratings and Staircase Approximation --- p.25Chapter 2.5.5 --- Model Calculations --- p.25Chapter 2.6 --- Anisotropic Gratings --- p.26Chapter 2.6.1 --- General Form of Electromagnetic Modes --- p.29Chapter 2.6.2 --- Matching Boundary Conditions --- p.30Chapter 2.6.3 --- Model Calculations --- p.31Chapter 3 --- Grating Diffraction by Linear Superposition of Retarded Field --- p.33Chapter 3.1 --- Basic Ideas --- p.33Chapter 3.2 --- Formalism --- p.35Chapter 3.2.1 --- Field Induced Currents --- p.36Chapter 3.2.2 --- Field due to Current and Charge Densities --- p.38Chapter 3.2.3 --- "Internal, Transmitted, and Reflected Fields" --- p.39Chapter 3.2.4 --- Points of Physical Interest --- p.41Chapter 3.3 --- Model Calculations --- p.43Chapter 3.4 --- Application to Systems with Anisotropy or Nonlinearity --- p.46Chapter 3.5 --- Summary --- p.52Chapter 4 --- Introduction to Surface Plasmonic Excitations and Phenomenon of Enhanced Transmission --- p.55Chapter 4.1 --- Introduction to Surface Plasmons --- p.55Chapter 4.2 --- Phenomenon of Enhanced Transmission --- p.60Chapter 5 --- Enhanced Transmission Through Stacking Grating with Subwavelength Slits --- p.72Chapter 6 --- Controlling Enhanced Transmissions via Anisotropic Effects --- p.81Chapter 6.1 --- Effects of Anisotropic Waveguide on The Phenomenon of Enhanced Transmission --- p.82Chapter 6.1.1 --- Control of Enhanced Transmission by Anisotropic Waveguide --- p.83Chapter 6.1.2 --- Electromagnetic Modes in Anisotropic Waveguide --- p.87Chapter 6.1.3 --- Single Mode Model for Studying Transmission of Grating with Slits Filled with Anisotropic Material --- p.89Chapter 6.2 --- Effects of Strong Applied Magnetic Field on the Phenomenon of Enhanced Transmission --- p.95Chapter 6.2.1 --- Magnetic Field Induced Anisotropy in Metals --- p.95Chapter 6.2.2 --- Enhanced Transmission under Influence of Strong Magnetic Field --- p.97Chapter 6.2.3 --- Modification of Surface Plasmon Dispersion relation by Strong Applied Magnetic Field --- p.101Chapter 7 --- Conclusion --- p.107Bibliography --- p.111Chapter A --- Fourier Factorization Rules --- p.120Chapter A.l --- Notations --- p.120Chapter A.2 --- Factorization rules [28] --- p.121Chapter A.3 --- Fourier Factorization of Quantities in Anisotropic medium [32] --- p.122Chapter B --- Derivation of Integral in Eq. (3.10) --- p.12