1 Introduction
Paraxial optics, ideal lenses, optical systems, raytrace,
Zemax handling
2 Optimization I
Basic principles, paraxial layout, thin lenses, transition to
thick lenses, scaling, Delano diagram, bending
3 Optimization II merit function requirements, effectiveness of variables
4 Optimization III complex formulations, solves, hard and soft constraints
5 Structural modifications
zero operands, lens splitting, aspherization, cementing, lens
addition, lens removal
6 Aberrations and performance
Geometrical aberrations, wave aberrations, PSF, OTF, sine
condition, aplanatism, isoplanatism
7 Aspheres and freeforms
spherical correction with aspheres, Forbes approach,
distortion correction, freeform surfaces, optimal location of
aspheres, several aspheres
8 Field flattening thick meniscus, plus-minus pairs, field lenses
9 Chromatical correction
Achromatization, apochromatic correction, dialyt, Schupman
principle, axial versus transversal, glass selection rules,
burried surfaces
10 Special topics symmetry, sensitivity, anamorphotic lenses
11 Higher order aberrations
high NA systems, broken achromates, Merte surfaces, AC
meniscus lenses
12
Advanced optimization
strategies
local optimization, control of iteration, global approaches,
growing requirements, AC-approach of Shafer
13 Mirror systems special aspects, bending of ray paths, catadioptric systems
14 Diffractive elements
color correction, straylight suppression, third order
aberrations
15 Tolerancing and adjustment tolerances, procedure, adjustment, compensators
2021-10-25 14:19:41
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光学设计
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