| zhuljuan |
2014-02-21 18:01 |
MIT 光学
MIT 光学 PPT (PDF版）23次课 下附目录 @7aSq-(_l*
1 Introduction; brief history of optics; absorption, refraction; laws of reflection and refraction Qv@Z#
2 Laws of reflection and refraction; prisms; dispersion; paraboloidal reflector ij=}3;L_!
3 Perfect focusing; paraboloidal reflector; ellipsoidal refractor; introduction to imaging; perfect on-axis imaging using aspheric lenses; imperfect imaging using spherical surfaces; paraxial approximation; ray transfer matrices g+98G8 R
4 Sign conventions; thin lens; real and virtual images < C9_5C e~
5 Imaging at finite distances with thin lenses; thick lenses; the human eye; image formation by a composite lens W!BIz&SY:-
6 Aperture stop; entrance and exit pupils; numerical aperture (NA); field stop; entrance and exit windows; field of view (FoV) ndIU0kq3
7 Ray tracing with mirrors; basic optical systems: single lens magnifier, eyepiece, microscope X%b.] A
8 Basic optical systems (cont.): telescope; chromatic aberration; geometrical aberrations: spherical, coma cQMb+ Q2Yw
9 Geometrical aberrations (cont.): astigmatism, field curvature, distortion; optical design demo; GRadient INdex (GRIN) optics: quadratic and axial profile; introduction to the Hamiltonian formulation icPg<>TQ
11 Hamiltonian formulation of ray tracing; analogies between Hamiltonian optics and Hamiltonian mechanics; introduction to waves :9`T.V<?
12 1D wave equation; complex (phasor) representation; 3D waves: plane, spherical /h MD
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13 3D waves: plane, spherical; dispersive waves; group velocity; spatial frequencies; introduction to electromagnetics; Maxwell's equations; derivation of the wave equation for light H]7 ;O M/g
14 Maxwell's equations (cont.); polarization justification of the refractive index; electromagnetic energy flux and Poynting's vector; irradiance (intensity) *. DTcV
15 Interference; Michelson and Mach-Zehnder interferometers; Huygens principle; Young interferometer; Fresnel diffraction &zYo
16 Gratings: amplitude, phase, sinusoidal, binary ?#LbhO*
17 Fraunhofer diffraction; review of Fourier transforms and theorems \VX~'pkrd/
18 Spatial filtering; the transfer function of Fresnel propagation; Fourier transforming properties of lenses $}/ !mXI5
19 4F system (telescope with finite conjugates) as a cascade of Fourier transforms; binary amplitude and phase pupil masks; Point Spread Function (PSF) /WJ*ro]Hd$
20 Shift invariance; Amplitude Transfer Function (ATF); lateral and angular magnification in the 4F system; relationship between NA, PSF, and ATF; sampling and the Space Bandwidth Product (SBP); advanced spatial filtering: pupil engineering, phase contrast imaging; Talbot effect fs cAG\>8
22 Temporal and spatial coherence; spatially incoherent imaging; Optical Transfer Function (OTF) and Modulation Transfer Function (MTF); comparison of coherent and incoherent imaging /8SQmh$+e
23 Imaging with a single lens; resolution bNG;`VZ%
25 Resolution (cont.); defocused optical systems hd2 X/"
26 Depth of focus and depth of field; deconvolution and Tikhonov regularization; polarization; wave plates; effects of polarization on high-NA optical systems
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