Mark M. Meyers
Eastman Kodak Company
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Featured researches published by Mark M. Meyers.
Diffractive and Holographic Optics Technology III | 1996
Mark M. Meyers
Diffractive optics allow for increased optical performance, decreased size and weight, and decreased systems costs in numerous applications. Many types of optics can be fabricated using diffractive surfaces which are not possible or not cost competitive, using standard refractive lenses. Diffractive optics technology has been developed at Kodak to the point where low cost, mass produced, plastic molded diffractive optics are available on a commercial basis for internal and external use. Rotationally symmetric, aspheric, refractive/diffractive hybrid lenses have been injection molded in 100,000 part test runs and the lenses demonstrated consistent quality throughout the test. In this paper we will discuss design, analysis and fabrication of diffractive optics for some typical applications. These applications include diffractive hybrid achromats for visual applications such as, fixed focus and zoom camera lenses, camera viewfinders, diffractively achromatized laser diode objectives, asymmetric anamorphic diffractive concentrating and spectral filtering lenses for a rangefinding and autofocus applications, the use of diffractive optics in high quality, grayscale laser writers for beam deflection and F(theta) lenses, the use of an array of diffractive elements as concentrating lenses that also separate the incident light into its component colors for CCD array applications. Examples of Kodak fabricated injection molded diffractive hybrid achromats will be analyzed for surface figure and optical performance. Diffractive laser beam deflectors and F(theta) lenses and their production as plastic molded parts will also be discussed. Finally, measurements of diffraction efficiency of molded diffractive optics fabricated at Kodak will be discussed.
Proceedings of SPIE | 1995
Mark M. Meyers; Joseph Raymond Bietry
Diffractive optics allow for increased optical performance, decreased size and weight, and decreased systems costs in numerous applications. Many types of optics can be fabricated using diffractive surfaces which are not possible, or not cost competitive, using standard refractive lenses. Diffractive optics technology has been developed at Kodak to the point where low cost, mass produced, plastic-molded diffractive optics are available on a commercial basis. Rotationally symmetric, aspheric, refractive/diffractive hybrid lenses have been injection molded in 100,000 part test runs and the lenses demonstrated consistent quality throughout the test. In this paper we will discuss design, analysis, and fabrication of diffractive optics for some typical applications. These applications include diffractive hybrid achromats for visual applications, such as fixed focus and zoom camera lenses, achromatized laser diode objectives, asymmetric anamorphic concentrating and spectral filtering lenses for rangefinding and autofocus applications, the use of diffractive optics in high quality, grayscale laser writers as beam deflectors and F(theta) lenses. Kodaks diamond turning capability for fabricating diffractive optics and our capacity for fabricating plastic injection mold tooling utilizing diamond turning is discussed. Finally, a discussion of our meteorology technology for examining diffractive surfaces will be discussed.
Optical Science, Engineering and Instrumentation '97 | 1997
Mark M. Meyers
The advent of the Advanced Photo System has led to more stringent requirements for high-performance photographic zoom lenses due to the increased enlarger magnification needed to form equivalent size prints from the smaller Kodak Advantix film negatives. Additionally, the trend towards more compact cameras that are easier to carry has reduced the space envelope alotted to the lens in NSLR cameras. Several novel designs that utilize the advantages of glass and plastic molded aspheres to achieve high performance, while maintaining a compact form factor, will be discussed.
Archive | 1998
Mark M. Meyers
Archive | 1996
Dale F. McIntyre; Stanley W. Stephenson; Mark M. Meyers; John K. McBride
Archive | 1998
Mark M. Meyers
Archive | 1997
Mark M. Meyers
Archive | 1996
Mark M. Meyers
Archive | 1994
Mark M. Meyers; Joseph Raymond Bietry
Archive | 1989
Mark M. Meyers; James K. Lee; Badhri Narayan; James E. Roddy