Digital Correction of Lens Aberrations In Light Field Photography Ren Ng and Pat Hanrahan Computer Science, Stanford University, Gates 368, Stanford, California 94305, USA ABSTRACT Digital light field photography consis

Source URL: graphics.stanford.edu

• Optics
• Geometrical optics
• Science of photography
• Light-field camera
• Camera lens
• Lens
• Optical aberration
• Microlens
• Image sensor format
• Chromatic aberration
• Zoom lens
• Aperture

3322 IEEE TRANSACTIONS ON IMAGE PROCESSING, VOL. 20, NO. 12, DECEMBER 2011 Computational Cameras: Convergence of Optics and Processing

Source URL: www1.cs.columbia.edu

• Optics
• Geometrical optics
• Science of photography
• Optical devices
• Observational astronomy
• Light-field camera
• Computational photography
• Wavefront coding
• Aperture
• Coded aperture
• Light field
• Camera lens

Multiscale lens design David J. Brady and Nathan Hagen Department of Electrical and Computer Engineering Fitzpatrick Institute for Photonics Duke University, Durham, NC 27708 ,

Source URL: www.disp.duke.edu

• Optics
• Geometrical optics
• Science of photography
• Lenses
• Telescopes
• Optical aberration
• Lenslet
• Optical telescope
• Aperture
• Simple lens
• Wavefront
• Angular resolution

Radiative transfer in nonuniformly refracting layered media: atmosphere-ocean system Zhonghai Jin and Knut Stamnes We have applied the discrete-ordinate method to solve the radiative-transfer problem pertaining to a syst

Source URL: cloudsgate2.larc.nasa.gov

• Optics
• Geometrical optics
• Physical optics
• Visibility
• Refraction
• Refractive index
• Rayleigh scattering
• Solar irradiance
• Fresnel equations
• Absorption
• Atmosphere of Earth
• Wave

Diffuse Structured Light Shree K. Nayar Columbia University 120th St, New York, NYMohit Gupta

Source URL: www1.cs.columbia.edu

• Optics
• Physics
• Electromagnetic radiation
• Geometrical optics
• Global illumination algorithms
• Shading
• Diffuser
• Radiance
• Shadow
• Scattering
• Reflection
• Global illumination

LETTER doi:nature11150 Multiscale gigapixel photography D. J. Brady1, M. E. Gehm2, R. A. Stack3, D. L. Marks1, D. S. Kittle1, D. R. Golish2, E. M. Vera2 & S. D. Feller1

Source URL: www.disp.duke.edu

• Digital photography
• Science of photography
• Optics
• Geometrical optics
• Computer graphics
• Digital camera
• Gigapixel image
• Pixel
• Focal length
• Camera
• Image quality
• High-dynamic-range imaging

Prototype  HyspIRI-­‐TIR  (PHyTIR)     Test  Results       William  R.  Johnson  and  PHyTIR  Team  

Source URL: phytir.jpl.nasa.gov

• Optics
• Observational astronomy
• Geometrical optics
• Science of photography
• Electromagnetic radiation
• Natural philosophy
• Mirror
• Aperture
• Interferometry

Tunneling of classical waves geometrical optics approximation: light travels as a ray (which is a subset of wave optics), in essence: all apertures are large, true wave properties do not matter (much), pretty similar to

Source URL: web.pdx.edu

Optomechanical design of multiscale gigapixel digital camera Hui S. Son,1 Adam Johnson,2 Ronald A. Stack,2 Jeffrey M. Shaw,3 Paul McLaughlin,3 Daniel L. Marks,1 David J. Brady,1 and Jungsang Kim1,* 1

Source URL: www.disp.duke.edu

• Optics
• Geometrical optics
• Science of photography
• Digital camera
• Infinity focus
• Focal length
• Camera lens
• Optical lens design
• Diffraction-limited system
• Angle of view
• Relay lens
• Image quality

What are Good Apertures for Defocus Deblurring? Changyin Zhou, Shree Nayar ∗† Abstract deblurring is achieved by deconvolution with this kernel. The main problem with defocus deblurring is that the higher

Source URL: www1.cs.columbia.edu

• Optics
• Geometrical optics
• Science of photography
• Observational astronomy
• Image processing
• Aperture
• Defocus aberration
• Coded aperture
• Depth of field
• Deblurring
• Deconvolution
• Diffraction