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Integral imaging

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other side. The screen would be placed inside a lightproof holder and on a tripod for stability. When exposed each tiny lens would function as a camera and record the surroundings from a slightly different angle than neighboring lenses. When developed and lit from behind the lenses should project the life-size image of the recorded subject in space. He could not yet present concrete results in March 1908, but by the end of 1908 he claimed to have exposed some Integral photography plates and to have seen the "resulting single, full-sized image". However, the technique remained experimental since no material or technique seemed to deliver the optical quality desired. At the time of his death in 1921 Lippmann reportedly had a system with only twelve lenses.
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each microlens allows each observing eye to see only the area of the associated micro-image containing the portion of the subject that would have been visible through that space from that eye's location. The optical geometry can perhaps be visualized more easily by substituting pinholes for the microlenses, as has actually been done for some demonstrations and special applications.
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or viewing lens. In capture mode, in which a film or detector is coupled to the microlens array, each microlens allows an image of the subject as seen from the viewpoint of that lens's location to be acquired. In reproduction mode, in which an object or source array is coupled to the microlens array,
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Inventor Gabriel Lippmann called the technique "photographie intégrale" (in French). It is usually translated literally as "integral photography", which suggests the integration of a whole image from parts of many small ones. However, a more usual meaning of the French word "intégrale" is "complete"
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autostereograms of Frederic Ives and Eugène Estanave, representing Estanave at several presentations of Estanave's works at the French Academy of Sciences. Lippmann suggested to use a screen of tiny lenses. Spherical segments should be pressed into a sort of film with photographic emulsion on the
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worked on integral photography and corresponded with Lippman about the technique. Lumière patented a system a few years after Lippmann's death, but never seems to have actually manufactured lenticular screens.
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in all directions, perspective that changes with the position and distance of the observer, and, if the lenses are small enough and the images of sufficient quality, the cue of
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and have only a subjective location in space, allowing a scene of infinite depth to be displayed without resorting to an auxiliary large magnifying lens or mirror.
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Eugène Estanave performed further experiments with Lippmann's technique. He exhibited an integral photograph in 1925 and published about his findings in
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or "unabridged", so that "complete photography" is another valid translation of Lippmann's perhaps deliberately ambiguous name for it.
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2010 Japan's NHK broadcasting company and Toshiba each showed a demo featuring a prototype display view-able with a 25 degree window.
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presented his ideas for "Photographie intégrale", based on insect eyes. He was probably also inspired by the
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display, the latest is based around an 8k screen showing 45 different possible angles simultaneously
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Diffraction Influence on the Field of View and Resolution of Three-Dimensional Integral Imaging
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is a three-dimensional imaging technique that captures and reproduces a
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The result is a visual reproduction complete with all significant
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On March 2, 1908 Nobel prize winning French physicist
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problem 488:Head-mounted display 420:Kinetic depth effect 18:Integral photography 576:2D to 3D conversion 528:Specular holography 523:Polarized 3D system 440:Stereoscopic acuity 435:Stereopsis recovery 164:Lenticular printing 90:lenticular printing 52:light field display 558:Wiggle stereoscopy 553:Volumetric display 518:Parallax scrolling 75:volumetric display 831:French inventions 813: 812: 774:Sharp Actius RD3D 694:Stereo microscope 601:Parallax scanning 415:Epipolar geometry 405:Peripheral vision 380:Binocular rivalry 16:(Redirected from 838: 759:Nvidia 3D Vision 513:Parallax barrier 498:Integral imaging 410:Depth perception 390:Chromostereopsis 385:Binocular vision 350: 343: 336: 327: 302: 301: 279: 273: 272: 250: 244: 243: 235: 229: 228: 211:(31 July 2015). 205: 174:Plenoptic camera 111:Gabriel Lippmann 28:Integral imaging 21: 846: 845: 841: 840: 839: 837: 836: 835: 816: 815: 814: 809: 788: 714: 708: 646: 640: 616:Stereoautograph 568: 562: 503:Lenticular lens 478:Autostereoscopy 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36:microlenses 32:light field 826:3D imaging 820:Categories 793:Miscellany 684:Digital 3D 679:Blu-ray 3D 543:Vectograph 508:Multiscopy 493:Holography 483:Bubblegram 430:Stereopsis 368:Perception 361:3D display 209:Timby, Kim 190:References 179:3D display 73:in a true 59:depth cues 123:La Nature 96:Etymology 44:objective 784:XpanD 3D 769:RealD 3D 727:Dolby 3D 722:AMD HD3D 715:products 285:and the 256:and the 153:See also 63:parallax 40:lenslets 752:New 3DS 737:Infitec 713:Notable 674:4D film 659:3D film 645:Product 454:Display 297:YouTube 268:YouTube 105:History 79:virtual 221:  71:voxels 647:types 567:Other 359:and 219:ISBN 38:(or 822:: 294:. 289:: 265:. 260:: 217:. 198:^ 92:. 54:. 349:e 342:t 335:v 300:. 271:. 242:. 227:. 20:)

Index

Integral photography
light field
microlenses
lenslets
objective
light field display
depth cues
parallax
accommodation
voxels
volumetric display
virtual
barrier grid
lenticular printing
Gabriel Lippmann
barrier grid
Louis Lumière
multiscopic
Autostereoscopy
Lenticular printing
Focus stacking
Plenoptic camera
3D display
Stereoscopy



Timby, Kim
3D and Animated Lenticular Photography
ISBN

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