Class

Article

College

College of Science

Department

Physics Department

Faculty Mentor

T.-C. Shen

Presentation Type

Poster Presentation

Abstract

It is known that carbon-nanotube forests, nanopillar arrays, and other high aspect-ratio conducting and semi-conducting nanostructures can have extremely low reflectance in a wide range of wavelengths, and that reflectance begins to rise at an onset wavelength. The mechanism for this behavior is poorly understood. In a previous work, we modeled conducting nanorod arrays as arrays of light sources using the Huygens-Fresnel principle and found that similar reflectance spectra could be generated. However, this simplified scalar wave model did not consider scattering effects. In this work, we improve on our previous model by calculating the scattered electromagnetic wave from a periodic conducting array. Details of our modeling and comparison with previous results will be presented.Presentation Time: Wednesday, 12-1 p.m.Zoom link: https://usu-edu.zoom.us/j/88527578213?pwd=c084OW02TXlYRHdkLzVYS25GVFhvQT09

Location

Logan, UT

Start Date

4-8-2021 12:00 AM

Included in

Life Sciences Commons

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Apr 8th, 12:00 AM

Electromagnetic Scattering From Periodic Conducting Arrays

Logan, UT

It is known that carbon-nanotube forests, nanopillar arrays, and other high aspect-ratio conducting and semi-conducting nanostructures can have extremely low reflectance in a wide range of wavelengths, and that reflectance begins to rise at an onset wavelength. The mechanism for this behavior is poorly understood. In a previous work, we modeled conducting nanorod arrays as arrays of light sources using the Huygens-Fresnel principle and found that similar reflectance spectra could be generated. However, this simplified scalar wave model did not consider scattering effects. In this work, we improve on our previous model by calculating the scattered electromagnetic wave from a periodic conducting array. Details of our modeling and comparison with previous results will be presented.Presentation Time: Wednesday, 12-1 p.m.Zoom link: https://usu-edu.zoom.us/j/88527578213?pwd=c084OW02TXlYRHdkLzVYS25GVFhvQT09