A fast and high-order accurate surface perturbation method for nanoplasmonic simulations: Basic concepts, analytic continuation and applications

Keyphrases

• Nanoplasmonics 100%
• Perturbation Method 100%
• Analytic Continuation 100%
• High-order Accurate 100%
• Analytics Application 100%
• Surface Perturbation 100%
• Reflectivity 66%
• Nanoscale Devices 33%
• Finite Element 33%
• Grating 33%
• Fourier Coefficients 33%
• Plasmonics 33%
• Surface Plasmon Resonance 33%
• Low-to-moderate 33%
• Order of Magnitude 33%
• Computation Time 33%
• Numerical Scheme 33%
• Finite Difference 33%
• Simple Geometry 33%
• Integral Equations 33%
• Solution Scheme 33%
• Wide Applicability 33%
• C-C Method 33%
• Applicability Domain 33%
• Perturbative Method 33%
• Method Choice 33%
• Optimal Domain 33%
• Continuation Method 33%
• Representable 33%
• Periodic Metallic Gratings 33%
• Band Gap Structure 33%
• High-order Perturbation of Surfaces Methods 33%
• Practical Investigations 33%
• Popular 33%
• High Order Perturbation 33%
• Conventional Wisdom 33%

Mathematics

• Perturbation Theory 100%
• Analytic Continuation 100%
• Finite Element Methods 33%
• Integral Equation 33%
• Finite Difference Methods 33%
• Numerical Scheme 33%
• Fourier Coefficient 33%

Chemistry

• Reflectivity 100%
• Band Gap 50%
• Surface Plasmon Resonance 50%