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Diffraction; Holography; 3DTV; Sampling; Fractional Fourier transform
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In the Spotlight article. Olympics broadcasts.
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Digital hologram; Coding; Fringe patter; H.264; DCT
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3-D Visualization and Identification of Biological Microorganisms Using
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Holographic monitoring of transportation effects on canvas paintings,
SPIE(Newsroom), June 29, 2011
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1107
Digital holographic speckle pattern interferometry is used to locate
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Display Holography's Digital Second Act,
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Memmolo, P.[Pasquale],
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A simple method for reconstructing digital color holograms, based on
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DH-HEMTs
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Chacko, N.[Nikhil],
Liebling, M.[Michael],
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Minimum-Entropy-Based Adaptive Focusing Algorithm for Image
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Gaussian processes
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Tahara, T.[Tatsuki],
Takahashi, Y.[Yuki],
Arai, Y.[Yasuhiko],
Digital holography for multidimensional sensing
with a monochromatic image sensor,
SPIE(Newsroom), August 14, 2014
DOI Link
1410
A single-shot exposure of a commercial monochromatic image sensor can
simultaneously record 3D spatial information as well as quantitative
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Reproducing deep 3D images from captured light fields,
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1501
A new method of high-resolution computational holography has been
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Hattay, J.[Jamel],
Belaid, S.[Samir],
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Belaid, S.[Samir],
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Naanaa, W.[Wady],
Aguili, T.[Taoufik],
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Springer DOI
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Zacharovas, S.[Stanislovas],
Bakanas, R.[Ramunas],
Stankauskas, A.[Algimantas],
Recording Denisyuk-type holograms with multi-pulse laser exposure,
SPIE(Newsroom), February 16, 2016
DOI Link
1602
Multi-pulse photomaterial exposure using a single longitudinal
mode-pulsed red-green-blue laser achieves an image depth of up to 40cm
for Denisyuk-type holograms.
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Yoshikawa, H.[Hiroshi],
Yamaguchi, T.[Takeshi],
Uetake, H.[Hiroki],
Objective evaluation of computer-generated hologram image quality,
SPIE(Newsroom), March 3, 2016
DOI Link
1604
Diffraction efficiency and peak signal-to-noise for an amplitude
hologram, phase hologram, and kinoform are used to assess the quality
of a Fourier transform hologram in a new methodology.
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Lee, M.[Munseob],
Min, G.[Gihyeon],
Kim, N.W.[Nac-Woo],
Lee, B.T.[Byung Tak],
Song, J.H.[Je-Ho],
Fast Holographic Image Reconstruction Using Phase-Shifting Assisted
Depth Detection Scheme for Optical Scanning Holography,
ETRI(38), No. 4, August 2016, pp. 599-605.
DOI Link
1608
BibRef
Krakovsky, M.[Marina],
Bringing Holography to Light,
CACM(59), No. 10, October 2016, pp. 13-15.
DOI Link
1610
While 3D technologies that make headlines are not truly holographic,
holographic techniques are furthering advances in important
applications such as biomedical imaging.
BibRef
Shimobaba, T.[Tomoyoshi],
Kakue, T.[Takashi],
Ito, T.[Tomoyoshi],
Random phase-free computer holography,
SPIE(Newsroom), August 17, 2016
DOI Link
1610
A proposed technique provides a simple and computationally inexpensive
method for enhancing the spatial resolution and reducing the speckle
noise of reconstructed images.
BibRef
Memmolo, P.,
Bianco, V.,
Paturzo, M.,
Ferraro, P.,
Numerical Manipulation of Digital Holograms for 3-D Imaging and
Display: An Overview,
PIEEE(105), No. 5, May 2017, pp. 892-905.
IEEE DOI
1705
holography, 3-d display, 3-d imaging, digital holograms,
digital holography, display technology, numerical manipulation,
numerical solutions, solid-state sensors, DH-HEMTs,
Holographic optical components, Holography, Image reconstruction,
Optical imaging, 3-D imaging,
Digital holography (DH), Display systems, Extended focus imaging,
Image processing, Image, reconstruction, techniques
BibRef
Matoba, O.,
Quan, X.,
Xia, P.,
Awatsuji, Y.,
Nomura, T.,
Multimodal Imaging Based on Digital Holography,
PIEEE(105), No. 5, May 2017, pp. 906-923.
IEEE DOI
1705
holography, image reconstruction, 3D recording,
digital holographic microscope, multimodal imaging,
numerical reconstruction, optical microscopes,
physical parametric imaging techniques,
Holographic optical components, Holography, Image reconstruction,
Optical imaging, Optical propagation, Optical sensors,
Digital holography, fluorescence, multimodal imaging, phase,
phasepolarization, phasespectral, estimation
BibRef
Yamaguchi, M.,
Full-Parallax Holographic Light-Field 3-D Displays and Interactive
3-D Touch,
PIEEE(105), No. 5, May 2017, pp. 947-959.
IEEE DOI
1705
calibration, cameras, holographic displays, image colour analysis,
image reconstruction, image registration, image sensors,
stereo image processing,
touch sensitive screens, 3-D real image floating, 3D space,
3D touch detection, 3D touch-sensing display, HS, LFD,
calibration camera, color image sensor, depth cues,
full-parallax holographic light-field 3D display,
holographic stereogram, human vision, image registration,
interactive 3D touch interface, ray-based methods,
real image reconstruction, real image reproduction,
virtual image reconstruction, wavefront-based methods,
Holography, Image reconstruction, Image resolution, Lenses,
User interfaces, Visualization,
3-D touch, Holographic display, human-computer visual interface,
light-field, display
BibRef
Son, J.Y.,
Lee, H.,
Lee, B.R.,
Lee, K.H.,
Holographic and Light-Field Imaging as Future 3-D Displays,
PIEEE(105), No. 5, May 2017, pp. 789-804.
IEEE DOI
1705
holography, photography, 2-D point image array, 3-d displays,
active 3-D imaging technologies, electroholographic displays,
holographic imaging, light-field imaging, optical geometries,
photography, Fatigue, Flat panel displays, Image resolution,
Stereo image processing, TV,
Continuous parallax, holographic imaging, light-field imaging,
multiview imaging, point, image, array
BibRef
Mori, Y.[Yutaka],
Arai, Y.[Yuto],
Fast computer hologram generation by flexible-ratio adaptive
point-spread spherical wave synthesis,
JOSA-A(34), No. 7, July 2017, pp. 1080-1084.
DOI Link
1708
Holography, Computer holography, Digital, holography
BibRef
Pellizzari, C.J.[Casey J.],
Spencer, M.F.[Mark F.],
Bouman, C.A.[Charles A.],
Phase-error estimation and image reconstruction from
digital-holography data using a Bayesian framework,
JOSA-A(34), No. 9, September 2017, pp. 1659-1669.
DOI Link
1709
Wave-front sensing, Image reconstruction-restoration, Inverse problems
BibRef
Pellizzari, C.J.[Casey J.],
Banet, M.T.[Matthias T.],
Spencer, M.F.[Mark F.],
Bouman, C.A.[Charles A.],
Demonstration of single-shot digital holography using a Bayesian
framework,
JOSA-A(35), No. 1, January 2018, pp. 103-107.
DOI Link
1801
Wave-front sensing, Image reconstruction-restoration, Inverse problems
BibRef
Pellizzari, C.J.[Casey J.],
Spencer, M.F.[Mark F.],
Bouman, C.A.[Charles A.],
Imaging through distributed-volume aberrations using single-shot
digital holography,
JOSA-A(36), No. 2, February 2019, pp. A20-A33.
DOI Link
1912
Atmospheric turbulence, Diffraction limit,
Discrete Fourier transforms, Reflection coefficient, Wave front sensing
BibRef
Wang, J.[Jun],
Wang, Q.H.[Qiong-Hua],
Hu, Y.[Yuhen],
Unified and accurate diffraction calculation between two concentric
cylindrical surfaces,
JOSA-A(35), No. 1, January 2018, pp. A45-A52.
DOI Link
1801
Diffraction theory, Computer holography, Wave propagation
BibRef
Montresor, S.[Silvio],
Picart, P.[Pascal],
Karray, M.[Mayssa],
Reference-free metric for quantitative noise appraisal in holographic
phase measurements,
JOSA-A(35), No. 1, January 2018, pp. A53-A60.
DOI Link
1801
Holographic interferometry, Image enhancement,
Image quality assessment, Noise in imaging systems, Metrics
BibRef
Peixeiro, J.P.,
Brites, C.,
Ascenso, J.,
Pereira, F.,
Holographic Data Coding:
Benchmarking and Extending HEVC With Adapted Transforms,
MultMed(20), No. 2, February 2018, pp. 282-297.
IEEE DOI
1801
Benchmark testing, Encoding, Holography, Image coding, Interference,
Standards, Transforms, Adapted transforms, HEVC extension,
holographic representation format
BibRef
Wang, W.[Wei],
Wu, X.X.[Xing-Xing],
Chen, G.C.[Guan-Chen],
Chen, Z.Q.[Ze-Qiang],
Holo3DGIS: Leveraging Microsoft HoloLens in 3D Geographic Information,
IJGI(7), No. 2, 2018, pp. xx-yy.
DOI Link
1802
BibRef
Carpio, A.,
Dimiduk, T.,
Selgas, V.,
Vidal, P.,
Optimization Methods for In-Line Holography,
SIIMS(11), No. 2, 2018, pp. 923-956.
DOI Link
1807
BibRef
Bernardo, M.V.[Marco V.],
Fernandes, P.[Pedro],
Arrifano, A.[Angelo],
Antonini, M.[Marc],
Fonseca, E.[Elsa],
Fiadeiro, P.T.[Paulo T.],
Pinheiro, A.M.G.[António M.G.],
Pereira, M.[Manuela],
Holographic representation: Hologram plane vs. object plane,
SP:IC(68), 2018, pp. 193-206.
Elsevier DOI
1810
Digital holography, HEVC codec,
Numerical reconstruction of holograms, Hologram plane, Object plane
BibRef
Edwards, C.[Chris],
Floating Voxels Provide New Hope for 3D Displays,
CACM(61), No. 10, October 2018, pp. 11-13.
DOI Link
1810
Implement the Star Wars movie 3D projection image.
BibRef
Blinder, D.[David],
Ahar, A.[Ayyoub],
Bettens, S.[Stijn],
Birnbaum, T.[Tobias],
Symeonidou, A.[Athanasia],
Ottevaere, H.[Heidi],
Schretter, C.[Colas],
Schelkens, P.[Peter],
Signal processing challenges for digital holographic video display
systems,
SP:IC(70), 2019, pp. 114-130.
Elsevier DOI
1812
Digital holography, Computer generated holography,
Holographic visualization, Holographic imaging, Quality assessment
BibRef
Liu, Y.,
Dong, H.,
Zhang, L.,
Saddik, A.E.,
Technical Evaluation of HoloLens for Multimedia: A First Look,
MultMedMag(25), No. 4, October 2018, pp. 8-18.
IEEE DOI
1901
Magnetic heads, Cameras, Surface reconstruction, Lighting,
Augmented reality, HoloLens, performance evaluation
BibRef
Baba, T.[Takanobu],
Watanabe, S.[Shinpei],
Jessie-Jackin, B.[Boaz],
Ootsu, K.[Kanemitsu],
Ohkawa, T.[Takeshi],
Yokota, T.[Takashi],
Hayasaki, Y.[Yoshio],
Yatagai, T.[Toyohiko],
Fast Computation with Efficient Object Data Distribution for
Large-Scale Hologram Generation on a Multi-GPU Cluster,
IEICE(E102-D), No. 7, July 2019, pp. 1310-1320.
WWW Link.
1907
BibRef
Yu, H.Q.[Hong-Qiang],
Jia, S.H.[Shu-Hai],
Dong, J.[Jun],
Huang, D.[Di],
Xu, S.J.[Shun-Jian],
Phase curvature compensation in digital holographic microscopy based
on phase gradient fitting and optimization,
JOSA-A(36), No. 12, December 2019, pp. D1-D6.
DOI Link
1912
Beam expanders, Digital image processing,
Holographic microscopy, Phase shift, Phase unwrapping,
White light interferometry
BibRef
Rajora, S.[Sunaina],
Butola, M.[Mansi],
Khare, K.[Kedar],
Mean gradient descent: an optimization approach for single-shot
interferogram analysis,
JOSA-A(36), No. 12, December 2019, pp. D7-D13.
DOI Link
1912
Computed tomography, Digital holographic imaging,
Fourier transforms, Image reconstruction,
Photons
BibRef
Dong, J.[Jun],
Jia, S.H.[Shu-Hai],
Yu, H.Q.[Hong-Qiang],
Hybrid method for speckle noise reduction in digital holography,
JOSA-A(36), No. 12, December 2019, pp. D14-D22.
DOI Link
1912
Digital image processing, Image processing algorithms,
Image quality, Speckle noise, Speckle patterns, Speckle reduction
BibRef
Latychevskaia, T.[Tatiana],
Iterative phase retrieval for digital holography: tutorial,
JOSA-A(36), No. 12, December 2019, pp. D31-D40.
DOI Link
1912
Digital holographic imaging, Phase measurement,
Phase retrieval, Phase shift, Scanning electron microscopy, Wave propagation
BibRef
Thurman, S.T.[Samuel T.],
Phase-error correction in digital holography using single-shot data,
JOSA-A(36), No. 12, December 2019, pp. D47-D61.
DOI Link
1912
Distributed feedback lasers, Image quality,
Liquid crystal modulators, Point spread function,
Speckle reduction
BibRef
Momey, F.[Fabien],
Denis, L.[Loic],
Olivier, T.[Thomas],
Fournier, C.[Corinne],
From Fienup's phase retrieval techniques to regularized inversion for
in-line holography: tutorial,
JOSA-A(36), No. 12, December 2019, pp. D62-D80.
DOI Link
1912
Image processing, Imaging systems, Imaging techniques,
Inverse problems, Phase retrieval, Phase shift
BibRef
Christopher, P.J.[Peter J.],
Wang, Y.C.[You-Chao],
Wilkinson, T.D.[Timothy D.],
Predictive search algorithm for phase holography,
JOSA-A(36), No. 12, December 2019, pp. 2068-2075.
DOI Link
1912
Beam shaping, Fourier transforms, Image quality, Laser beams,
Modulation techniques, Spatial light modulators
BibRef
Christopher, P.J.[Peter J.],
Lake, J.D.[Jamie D.],
Dong, D.[Daoming],
Joyce, H.J.[Hannah J.],
Wilkinson, T.D.[Timothy D.],
Improving holographic search algorithms using sorted pixel selection,
JOSA-A(36), No. 9, September 2019, pp. 1456-1462.
DOI Link
1912
Beam shaping, Fast Fourier transforms, Image quality,
Power spectral density, Spatial frequency, Spatial light modulators
BibRef
Li, S.[Shengfu],
Zhao, Y.[Yu],
Ye, Y.[Yan],
Self-calibrated and SNR-enhanced particle holography,
JOSA-A(36), No. 8, August 2019, pp. 1395-1401.
DOI Link
1912
Fourier transforms, Holographic recording,
Holographic techniques, Laser beams, Numerical simulation, Speckle noise
BibRef
Jin, L.W.[Li-Wei],
Li, H.W.[Hong-Wei],
Zhao, C.Y.[Chao-Yue],
Gao, W.[Wei],
Generation of Airy vortex beam arrays using computer-generated
holography,
JOSA-A(36), No. 7, July 2019, pp. 1215-1220.
DOI Link
1912
Airy beams, Fresnel diffraction, Optical fields,
Optical vortices, Spiral phase, Vortex beams
BibRef
Zecca, R.[Roberto],
Smith, D.R.[David R.],
Marks, D.L.[Daniel L.],
Characterizing the information capacity of volume holograms with the
Holevo bound,
JOSA-A(36), No. 5, May 2019, pp. 930-935.
DOI Link
1912
Holographic memory, Holographic techniques,
In field scattering, Quantum communications,
Volume holography
BibRef
Deng, H.[Huan],
Chen, C.[Cong],
He, M.Y.[Min-Yang],
Li, J.J.[Jiao-Jiao],
Zhang, H.L.[Han-Le],
Wang, Q.H.[Qiong-Hua],
High-resolution augmented reality 3D display with use of a lenticular
lens array holographic optical element,
JOSA-A(36), No. 4, April 2019, pp. 588-593.
DOI Link
1912
Diffraction efficiency, Head mounted displays,
Holographic displays, Holographic recording,
Three dimensional displays
BibRef
Malallah, R.[Ra'ed],
Li, H.Y.[Hao-Yu],
Qi, Y.[Yue],
Cassidy, D.[Derek],
Muniraj, I.[Inbarasan],
Al-Attar, N.[Nebras],
Sheridan, J.T.[John T.],
Improving the uniformity of holographic recording using multilayer
photopolymer. Part I. Theoretical analysis,
JOSA-A(36), No. 3, March 2019, pp. 320-333.
DOI Link
1912
Extinction coefficients, Holographic optical elements,
Holographic recording materials, Light intensity, Spatial frequency
BibRef
Malallah, R.[Ra'ed],
Li, H.Y.[Hao-Yu],
Qi, Y.[Yue],
Cassidy, D.[Derek],
Muniraj, I.[Inbarasan],
Al-Attar, N.[Nebras],
Sheridan, J.T.[John T.],
Improving the uniformity of holographic recording using multi-layer
photopolymer: Part II. Experimental results,
JOSA-A(36), No. 3, March 2019, pp. 334-344.
DOI Link
1912
Diffraction efficiency, Diffraction gratings,
Effective refractive index, Holographic memory, Spatial frequency
BibRef
Dardikman, G.[Gili],
Shaked, N.T.[Natan T.],
Is multiplexed off-axis holography for quantitative phase imaging
more spatial bandwidth-efficient than on-axis holography?,
JOSA-A(36), No. 2, February 2019, pp. A1-A11.
DOI Link
1912
Digital holographic imaging, Holographic techniques,
Phase imaging, Phase shift, Phase unwrapping, Spatial frequency
BibRef
Kalenkov, S.G.[Sergey G.],
Kalenkov, G.S.[Georgy S.],
Shtanko, A.E.[Alexander E.],
Self-reference hyperspectral holographic microscopy,
JOSA-A(36), No. 2, February 2019, pp. A34-A38.
DOI Link
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Digital holographic imaging, Holographic microscopy,
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Holographic optical elements, Imaging systems,
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1912
Spatial frequency, Speckle interferometry, Speckle noise,
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Diffraction efficiency, Holographic gratings,
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Diffraction gratings, Computer holography, Holographic display,
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Electrooptical modulators, Holographic displays,
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Digital holography, Fourier holography, Holographic display,
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Image coding, Gaussian distribution,
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Replay: Multi-modal Multi-view Acted Videos for Casual Holography,
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Self-Supervised Focus Measure Fusing for Depth Estimation from
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ICIP22(2596-2600)
IEEE DOI
2211
Deep learning, Computational modeling, Superresolution,
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Wu, Z.Q.[Ze-Qun],
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3D Reconstruction and Object Detection for HoloLens,
DICTA20(1-2)
IEEE DOI
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Object detection, Servers, Task analysis, Image reconstruction,
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Sahin, E.,
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Mäkinen, J.,
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Analysis of Accommodation Cues in Holographic Stereograms,
3DTV-CON18(1-4)
IEEE DOI
1812
holography, image reconstruction, image resolution, image sampling,
stereo image processing, hologram methods, HS,
accommodation
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Hong, K.,
Lim, Y.,
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Park, M.,
Kim, J.,
Table-top electronic holographic display satisfying stereopsis along
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IC3D17(1-5)
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1804
electron holography, holographic displays, image reconstruction,
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time-division multiplexing
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Soukup, D.,
Huber-Mörk, R.,
Mobile hologram verification with deep learning,
MVA17(169-172)
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1708
Image color analysis, Light emitting diodes, Lighting,
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Dingli, A.[Alexiei],
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Holographic Humans,
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1608
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Xing, Y.,
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Sparse based adaptive non separable vector lifting scheme for
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IC3D15(1-8)
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holographic storage
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Gules, A.[Antonin],
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Complex modulation computer-generated hologram by a fast hybrid
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ICIP15(4962-4966)
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1512
Color holography
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A framework for view-dependent hologram representation and adaptive
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ICIP15(3334-3338)
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1512
Digital holography
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CDF 9/7 wavelets as sparsifying operator in compressive holography,
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1512
CDF 9/7 wavelet
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Lee, S.,
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Analysis of radial symmetric interpolation in hologram generation,
3DTV-CON15(1-4)
IEEE DOI
1508
Holography
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Park, J.,
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Kim, J.,
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Kim, J.,
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An optical reconstruction of hologram recorded by OSH using
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3DTV-CON15(1-3)
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1508
Holographic optical components
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Ichihashi, Y.,
Oi, R.,
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Yamamoto, K.,
Electronic holography using tiled multiple spatial light modulators
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3DTV-CON15(1-4)
IEEE DOI
1508
Cameras
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Swash, M.R.,
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Abdulfatah, O.,
Fernandez, J.C.,
Alazawi, E.,
Tsekleves, E.,
Distributed pixel mapping for refining dark area in parallax barriers
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IC3D13(1-4)
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1503
image colour analysis
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Kim, H.E.[Hyun-Eui],
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Large-scale color holographic display capable of steering view window,
IC3D13(1-4)
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1503
holographic displays
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IC3D13(1-4)
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amplitude modulation
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Integral imaging using color multiplexed holographic optical element,
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holographic optical elements
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Digital refocusing with incoherent holography,
ICCP14(1-9)
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cameras
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Super depth-map rendering by converting holoscopic viewpoint to
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3DTV-CON14(1-4)
IEEE DOI
1409
image processing
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Swash, M.R.,
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Reference based holoscopic 3D camera aperture stitching for widening
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3DTV-CON14(1-3)
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1409
holography
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Comparative study of scalar and vector quantization on different
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1409
data compression
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3DTV-CON13(1-4)
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3D holoscopic video
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Preliminary results in the development of a multi-colour pulsed laser
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3DTV-CON13(1-3)
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3DTV-CON13(1-4)
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digital holography
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displays; holography; three-dimensional television
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Chapter on Stereo: Three Dimensional Descriptions from Two or More Views, Binocular, Trinocular continues in
Haptic Systems, Haptic Displays, Haptic Analysis, Tactile Sensing .