Abstract

An interactive optical design tool that is based on multidimensional quadratic extrapolation is described. This technique extends the radius of convergence of the aberration manipulation process, provides strategic information about the correctability of the aberrations at each stage in iteration, and is computationally simple. A quadratic approximation to each of the nonlinearly varying aberrations, which are initially based on one relatively remote linearly predicted point in solution space, allows the step length of this differential improvement method to be extended over that which is possible with local derivative techniques. The basic mathematical method works with an equal number of defects and variables, and to involve all the relevant constructional parameters of an optical system these are grouped or linked together on the basis of an assumption about their combined ability to correct the chosen aberrations. Examples are given.

© 1992 Optical Society of America

Initial design method based on an iterative calculation of aberration and its application to an objective lens for imaging spectrometer

Jin Choi, H. J. Kong, and Jong Ung Lee
Appl. Opt. 53(10) 1983-1989 (2014)

Aberration correction method for the catadioptric imaging system design

Zhenjie Liu and Feihong Yu
Appl. Opt. 55(11) 2943-2950 (2016)

Adaptive Automatic Correction in Optical Design

E. Glatzel and R. Wilson
Appl. Opt. 7(2) 265-276 (1968)

Aberration correction of double-sided telecentric zoom lenses using lens modules

Jinkai Zhang, Xiaobo Chen, Juntong Xi, and Zhuoqi Wu
Appl. Opt. 53(27) 6123-6132 (2014)

Automatic lens-splitting optimization algorithm for spherical aberration correction

Jiaying He and Feihong Yu
Appl. Opt. 60(34) 10727-10735 (2021)