Optical instruments are how we see the world, from corrective eyewear to medical endoscopes to cell phone cameras to orbiting telescopes. This course will teach you how to design such optical systems with simple mathematical and graphical techniques. The first order optical system design covered in the previous course is useful for the initial design of an optical imaging system but does not predict the energy and resolution of the system. This course discusses the propagation of intensity for Gaussian beams and incoherent sources. It also introduces the mathematical background required to design an optical system with the required field of view and resolution. You will also learn how to analyze these characteristics of your optical system using an industry-standard design tool, OpticStudio by Zemax.
Este curso faz parte do Programa de cursos integrados Optical Engineering
Optical Efficiency and Resolution
oferecido por
Programa - O que você aprenderá com este curso
Semana
1Geometrical Optics for Gaussian Beams
First order optical system design using rays is useful for the initial design of an optical imaging system, but does not predict the energy and resolution of the system. This module introduces Gaussian beams, an specific example of how the shape of the light evolves in an imaging system.
12 vídeos (total de (Total 80 mín.) min), 2 leituras, 4 testes
12 videos
Light has a shape3min
The Gaussian beam11min
The Gaussian q parameter4min
The evolution of the q parameter10min
Gaussian Beam Propagation Lab Demo3min
Ray tracing Gaussian beams9min
Examples of ray tracing Gaussian beams7min
Do Gaussian beams obey imaging?8min
The Lagrange invariant4min
The post-doc's tale4min
Design of a fiber to fiber coupler7min
2 leituras
Course overview5min
Tools and Resources10min
4 exercícios práticos
Gaussian Beam Practice Problems20min
Gaussian Beam OpticStudio Practice4min
Practice Problem15min
Gaussian Beams45min
Semana
2Maxwell's Equations
This module provides the background for the full electro-magnetic field description of optical systems, including a description of plane and spherical waves and a formal treatment of reflection and refraction from this perspective. We start out with a quick review of the mathematical background for this description. This will be fairly short, but you may want to spend some more time reviewing these concepts on your own if you have not seen them for a while.
8 vídeos (total de (Total 51 mín.) min), 2 leituras, 3 testes
8 videos
Lorentz oscillator10min
Wave equation3min
Plane waves4min
Spatial frequency9min
Spherical waves2min
Fresnel coefficients7min
Brewster's Angle Laboratory Demonstration5min
2 leituras
Spatial Frequency Introduction10min
Polarization: Sunglasses and the Sky15min
3 exercícios práticos
Absorption Practice10min
Practice Problems15min
Maxwell's Equationss
Semana
3Impulse Responses and Transfer Functions
This module provides an introduction to the basics of Fourier Optics, which are used to determine the resolution of an imaging system. We will discuss a few Fourier Transforms that show up in standard optical systems in the first subsection and use these to determine the system resolution, and then discuss the differences between coherent and incoherent systems and impulse responses and transfer functions in the second subsection. We will wrap up with a discussion of these concepts using OpticStudio.
10 vídeos (total de (Total 61 mín.) min), 2 testes
10 videos
Fourier Transform of the Gaussian Beam4min
The Airy disk6min
Cutoff Frequency5min
The coherent transfer function4min
The relation of impulse response and transfer function5min
Incoherent impulse response4min
Optical transfer function4min
Summary6min
Implementation in OpticStudio10min
2 exercícios práticos
Airy Disk OpticStudio Practice20min
Impulse Responsess
Semana
4Finite Aperture Optics
This module takes the concepts of pupils and resolution that we have discussed in the previous modules and works through how to apply them to our first-order optical design systems. We start with a description of how to find the system pupils and windows, then move on to a discussion of how that affects the imaging properties of this system, and finally return to the Lagrange invariant and its utility in optical system design.
11 vídeos (total de (Total 90 mín.) min), 2 testes
11 videos
Field stop and windows8min
Lyot stop6min
Stops Laboratory Demonstration4min
Effective NA and F#7min
Depth of focus9min
Vignetting6min
Telecentric imaging4min
Lagrange invariant8min
Resolvability12min
Example and Phase Space13min
2 exercícios práticos
Finite Aperture Practice30min
Fine Aperture Opticss
3.0
1 avaliaçõesMelhores avaliações
por OD•Nov 15th 2018
The lab demonstrations were very helpful and the explanations of complex phenomena were very easy to understand.
Instrutores
Amy Sullivan
Research AssociateElectrical, Computer and Energy Engineering
Robert McLeod
ProfessorElectrical, Computer and Energy Engineering
Sobre Universidade do Colorado em Boulder
CU-Boulder is a dynamic community of scholars and learners on one of the most spectacular college campuses in the country. As one of 34 U.S. public institutions in the prestigious Association of American Universities (AAU), we have a proud tradition of academic excellence, with five Nobel laureates and more than 50 members of prestigious academic academies.
Sobre o Programa de cursos integrados Optical Engineering
Optical instruments are how we see the world, from corrective eyewear to medical endoscopes to cell phone cameras to orbiting telescopes. This course will teach you how to design such optical systems with simple graphical techniques, then transform those pencil and paper designs to include real optical components including lenses, diffraction gratings and prisms. You will learn how to enter these designs into an industry-standard design tool, OpticStudio by Zemax, to analyze and improve performance with powerful automatic optimization methods.
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