DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS

This dissertation investigates design, modeling and testing methods of optical surfaces in illumination optics.The main focus of this dissertation is to investigate the faceted non-imaging specular light reflector that is often used to generate a uniform, incoherent illuminance distribution. General...

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Main Author: Wang, Lirong
Other Authors: Sasian, Jose M.
Language:en
Published: The University of Arizona. 2010
Subjects:
Online Access:http://hdl.handle.net/10150/195097
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spelling ndltd-arizona.edu-oai-arizona.openrepository.com-10150-1950972015-10-23T04:42:07Z DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS Wang, Lirong Sasian, Jose M. Sasian, Jose M. Dallas, William J. Hua, Hong Optical Sciences This dissertation investigates design, modeling and testing methods of optical surfaces in illumination optics.The main focus of this dissertation is to investigate the faceted non-imaging specular light reflector that is often used to generate a uniform, incoherent illuminance distribution. General design methodologies of faceted light reflectors are overviewed. Several design examples of faceted light reflectors including a novel LED flashlight, a novel microscope illuminator and a 20-m segmented paraboloidal solar collector are discussed and analyzed.An accurate source model is important for illumination system design. In this dissertation, an analytic short-arc source modeling method is developed and integrated in the illumination design software ZEMAX.In addition to the design and modeling work, this dissertation explores a flexible, low-cost and robust Software Configurable Optical Test System (SCOTS) for testing specular free-form surfaces that are often used in illumination systems. The application of this testing system in measuring a 3-m segmented paraboloidal solar reflector is investigated. Preliminary SCOTS test results for an F/0.2 concave automotive headlight reflector are introduced. In addition to testing the surfaces of illumination optics using SCOTS, the applications of SCOTS in the measurement of large, high precision optics are also explored and briefly discussed. 2010 text Electronic Dissertation http://hdl.handle.net/10150/195097 752261168 11319 en 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. The University of Arizona.
collection NDLTD
language en
sources NDLTD
topic Optical Sciences
spellingShingle Optical Sciences
Wang, Lirong
DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
description This dissertation investigates design, modeling and testing methods of optical surfaces in illumination optics.The main focus of this dissertation is to investigate the faceted non-imaging specular light reflector that is often used to generate a uniform, incoherent illuminance distribution. General design methodologies of faceted light reflectors are overviewed. Several design examples of faceted light reflectors including a novel LED flashlight, a novel microscope illuminator and a 20-m segmented paraboloidal solar collector are discussed and analyzed.An accurate source model is important for illumination system design. In this dissertation, an analytic short-arc source modeling method is developed and integrated in the illumination design software ZEMAX.In addition to the design and modeling work, this dissertation explores a flexible, low-cost and robust Software Configurable Optical Test System (SCOTS) for testing specular free-form surfaces that are often used in illumination systems. The application of this testing system in measuring a 3-m segmented paraboloidal solar reflector is investigated. Preliminary SCOTS test results for an F/0.2 concave automotive headlight reflector are introduced. In addition to testing the surfaces of illumination optics using SCOTS, the applications of SCOTS in the measurement of large, high precision optics are also explored and briefly discussed.
author2 Sasian, Jose M.
author_facet Sasian, Jose M.
Wang, Lirong
author Wang, Lirong
author_sort Wang, Lirong
title DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
title_short DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
title_full DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
title_fullStr DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
title_full_unstemmed DESIGN, MODELING AND TESTING OF OPTICAL SURFACES IN ILLUMINATION OPTICS
title_sort design, modeling and testing of optical surfaces in illumination optics
publisher The University of Arizona.
publishDate 2010
url http://hdl.handle.net/10150/195097
work_keys_str_mv AT wanglirong designmodelingandtestingofopticalsurfacesinilluminationoptics
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