Journal of the European Optical Society - Rapid publications, Vol 2 (2007)

Tolerancing of single point diamond turned diffractive optical elements and optical surfaces

R. F. Bittner

Abstract


Single point diamond turning has an increasing importance with the production of the surfaces for different optical systems such as infrared systems, prototype production of mobile phone cameras or head mounted displays with plastic lenses or master manufacturing for the injection moulding of plastic lenses for mass products.
Tolerances which occur during single point diamond turning of aspheric surfaces and diffractive elements or during polar coordinate laser plotting of Computer-generated holograms will be treated. In both cases we expect similar tolerances, because the work piece is rotated in both diamond turning and laser plotting. The purpose is to understand the typical tolerances and to simulate their influence to the aberrations in the optical system. © The Author. All rights reserved [DOI: 10.2971/jeos.2007.07028]

© The Authors. All rights reserved. [DOI: 10.2971/jeos.2007.07028]

Full Text: PDF

Citation Details


Cite this article

References


J. P. Schaefer, ThB1.pdf, Vancoover IODC (2006).

Gabor Erdei, Gabor Szarvas, Emke Lrincz, "Tolerancing surface accuracy of aspheric lenses used for imaging purposes" Proc. of SPIE 5249, 718-728 (2004).

J. P. Marioge, S. Slansky, "EFFET DES DFAUTS DE FORME ET DES ODULATIONS DES SURFACES OPTIQUES SUR LA QUALIT DES IMAGES, Effect of figure and waviness on image quality" J. Optics (Paris) 14, 189-198 (1983).

R. C. Juergens, R. Hamilton Shepard III, John P. Schaefer, "Simulation of single point diamond turning fabrication process errors" Proc. of SPIE 5174, 93-104 (2003).

R. Freimann, "Aberrations of axially symmetric diffractive optical elements in relation to their fabrication inaccuracies" Optik 111, 485-492 (2000).

S. Reichelt, M. Daffner, H. J. Tiziani, R. Freimann, "Wavefront aberrations of rotationally symmetric CGHs fabricated by a polar coordinate laser plotter" J. Mod. Optic 49, 1069-1087 (2002).

CodeV trademark of Optical Research Associates.