Effective antireflection coatings of transparent polymeric materials by gas-phase surface fluorination / Gary Jorgensen, Paul Schissel ; prepared for the U.S. Department of Energy.

There is a dramatic need in solar energy collection systems for lightweight, inexpensive polymeric materials that exhibit improved performance and durability. One approach to altering the properties of polymeric materials, surface fluorination, is appealing because of its potential for low cost. The...

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Bibliographic Details
Main Author: Jorgensen, G. J. (Gary J.)
Corporate Authors: United States. Department of Energy, Solar Energy Research Institute
Other Authors: Schissel, Paul
Format: Government Document Book
Language:English
Published: Golden, Colo. : Solar Energy Research Institute, 1984.
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Summary:There is a dramatic need in solar energy collection systems for lightweight, inexpensive polymeric materials that exhibit improved performance and durability. One approach to altering the properties of polymeric materials, surface fluorination, is appealing because of its potential for low cost. The literature indicates that such properties as permeability, wettability, bondability, thermal stability, weatherability, and optical transmittance can be improved by treating the surface with gaseous fluorine. A gas phase fluorination reactor system (GPFRS) was designed, built, and used. The initial emphasis was on improving optical transmittance by having an effective antireflection coating form on the surface of a wide variety of commercially available transparent polymeric films. Optical measurements revealed substantial improvement in specular transmittance following surface fluorination of almost all materials considered. Increases in solar weighted specular transmittance as high as 4.6% were measured.
Item Description:"SERI/title page-255-2387"--Cover.
"Presented at the meeting of the Society of Photo optical Instrumentation Engineers, San Diego, California, 19 - 24 August 1984"--Cover.
"July 1984"--Cover.
Physical Description:7 pages : illustrations ; 28 cm.
Bibliography:Includes bibliographical references (page 7)