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azu_etd_1438_sip1_m.pdf
Author
OShea, KevinIssue Date
2005Keywords
Optical SciencesAdvisor
Sasian, Jose M.Committee Chair
Sasian, Jose M.
Metadata
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The University of Arizona.Rights
Copyright © is held by the author. Digital access to this material is made possible by the University Libraries, University of Arizona. Further transmission, reproduction or presentation (such as public display or performance) of protected items is prohibited except with permission of the author.Abstract
A process to design a relay lens is presented. The process is to concatenate a collimator lens and an imaging lens. For this study the imager and collimator are required to have an external or remote stop in collimated space to prevent interference upon concatenation. The relay is created by concatenating the collimator and imager at the external or remote stop. This process allows the use of optimized infinite conjugate imagers to develop a relay lens. A collimator lens can be created by reversing the path of an imager. Magnification is achieved by scaling the focal length of the imager while keeping the focal length of the collimator constant. Computer design software is used to develop examples of relays designed using the process. A discussion of the aberration theory governing the integration of the collimator and imager to create a relay is also presented.Type
textElectronic Thesis
Degree Name
MSDegree Level
mastersDegree Program
Optical SciencesGraduate College