Date of Award
12-17-1996
Document Type
Thesis
Degree Name
Master of Science
Department
Department of Engineering Physics
First Advisor
Michael C. Roggeman, PhD
Abstract
MEMS (Micro-Electro-Mechanical Systems) micromirror devices can be used to control the phase of a propagating light wavefront, and in particular to correct aberrations that may be present in the wavefront, due to either atmospheric turbulence or any other type of fixed or time and space varying aberrations. In order to shorten the design cycle of MEMS micromirror devices, computer software is developed to create, from MEMS micromirror device design data, a numerical model of the MEMS device. The model is then used to compute the far field diffraction pattern of a wavefront reflected from the device, and to predict the effectiveness with which it can be used to correct an aberrated wavefront. For validation, the computed far field diffraction pattern is compared to that measured using a real MEMS micromirror device, with a reasonable match between the two being found. The model is designed for maximum flexibility and can be easily adapted to new designs of MEMS micromirror devices.
AFIT Designator
AFIT-GAP-ENP-96D-09
DTIC Accession Number
ADA324132
Recommended Citation
Roberts, Peter C., "Modeling and Simulation of Optical Characteristics of Microelectromechanical Mirror Arrays" (1996). Theses and Dissertations. 5853.
https://scholar.afit.edu/etd/5853