Course No:
Class Hours/Week: 4 Credit:2
Audience:undergraduates, graduate,Ph.D
Teaching manner:Multimedia
Course objectives and basic requirements:
This course will provide students with a fundamental understanding of optical design concepts as applied to lens design. Emphasis will be on practical understanding of optical design and the use of an optical design computer program (codeV) to design practical optical system
The primary objective of this course is to enable an optical engineering student to:
1. Design lenses for a particular application.
2. Develop insight to determine the necessary image quality for an application as well as the limitations
3. Develop the knowledge to evaluate lens designs via various figures of merit, i.e., MTF, Strehl ratio.
4. Provide an understanding of classical lens designs, characteristics/limitations, certain patents.
Course introduction:
The outline of this curriculum includes Agenda Introduction, CODE V Basics, Design Basics, QU ray trace (MatLab realization), Transverse Ray Aberration (such as Defocus, Tilt, Chromatic Aberration, Lateral Chromatic Aberration, Transverse ray aberration, Wave Front Expansion, Spherical Aberration, Field curvature, Astigmatism, Coma, Seidel coefficients, Aberration control, Combination of aberrations, Ray fans analysis, Seidel/Coefficients and rms wavefront analysis), Conic/Aspheric Surface, Image evaluation 1(MatLab realization)(including Spot diagrams and MTF/PSF), Image evaluation 2(MatLab realization, including MTF with aberration, Strehl ratio and Alaising), Optimization(MatLab realization), Optical Coordinate Transform and Code V
Syllabus and lecture schedule:
Week | Main contents | 备注 |
1. | 01_OCAD Introduction | |
2. | 02_OCAD Design Basics | |
3. | 03_CODEV Practical: VGA lens design | |
4. | 04_CODEV Practical: Lens transform history | |
5. | 05_Ray optics 1: Paraxial matrix method | |
6. | 06_Ray optics 2: QU method | |
7. | 07_Ray Optics3:Coddington method | |
8. | 08_Ray aberation analysis 1 | |
9. | 09_ Ray aberation analysis 1 | |
10. | 10_ Ray aberation analysis 1 | |
11. | 11_CODEV practical:Tilt & Decenter | |
12. | 12_CODEV practica:Zoom | |
13. | 13_CODEV Practical:Asphere | |
14. | 14_CODEV practical:Optimization technique | |
15. | 15_CODEV practical: analysis | |
16. | 16_CODE V practical: Macro Languang | |
17. | 17_CODEV Practical: Design of objective lens | |
18. | 18_CODEV_Practical:Design of eyepieces | |
19. | | |
20. | | |
Related teaching sections:
4 hours/week
Test and Grading Criteria:
Home work and design project
Suggested textbooks or references:
1、Manuscript by (Feihong Yu)
2、R. Fischer, B. Tadic-Galeb. Optical System Design
3、W. Welford. Useful Optics
4、ZEMAX,OSLO,TRACRPRO, CODE V handbook