The MSRC Stereo Vision C# SDK,
Microsoft2009.
WWW Link.
Code, Stereo.
See also Microsoft Research.
BibRef
0900
3D Media Corporation,
2009.
WWW Link.
Vendor, Stereo. Real time commercialization of 3D technology for home use.
Mapvision,
2007.
WWW Link.
Vendor, Stereo Sensor. High resolution 3d sensing.
Point Grey Research,
1997.
WWW Link.
Vendor, Stereo Sensor. Supplier of a variety of real-time implementations for stereo (2 and 3
camera hardware) and various software packages. Other hardware includes
a 6 camera implementation of a spherical sensor.
TYZX,
2000.
WWW Link.
Vendor, Stereo. Stereo vision systems.
Acute3D,
2010
automatic high resolution 3D modeling from photographs.
WWW Link.
Vendor, Stereo.
See also IMages Apprentissage GeometrIe Numerisation Environment.
Kak, A.C.,
Depth Perception for Robots,
HIR841984, pp. XX-YY.
BibRef
8400
And:
Purdue-TR-83-44, October, 1983.
Stereo.
Survey, Stereo. A survey article that describes the stereo computations and some
of the solutions that are available.
BibRef
Pipitone, F.J.,
Marshall, T.G.,
A Wide-Field Scanning Triangulation Rangefinder for Machine Vision,
IJRR(2), No. 1, Spring 1983, pp. 39-49.
BibRef
8300
Kanade, T.,
Immersion into Visual Media: New Applications of Image Understanding,
IEEE_EXPERT(11), No. 1, February 1996, pp. 73-80.
Use of real time stereo to insert a person into a 3D environment.
BibRef
9602
Kanade, T.,
Gruss, G.,
Carley, R.,
A Very Fast VLSI Rangefinder,
CRA91(1322-1329).
BibRef
9100
Gruss, A.[Andrew],
Tada, S.[Shigeyuki],
Kanade, T.[Takeo],
A VLSI Smart Sensor for Fast Range Imaging,
DARPA93(977-986).
A 28X32 range sensor using laser diode for structured light.
BibRef
9300
Tada, S.[Shigeyuki],
Gruss, A.[Andrew],
Kanade, T.[Takeo],
CMU Very Fast Range-Imaging System,
CMU-CS-TR-93-179, October 1993.
PS File.
BibRef
9310
Kanade, T.[Takeo], and
Fuhrman, M.,
A Noncontact Optical Proximity Sensor for Measuring Surface Shape,
3DMV87(151-192).
Multiple sensors and simple algorithms.
BibRef
8700
Kanade, T.[Takeo], and
Sommer, T.M.[Thomas M.],
An Optical Proximity Sensor for Measuring Surface Position and Orientation
for Robot Manipulation,
CMU-RI-TR-83-15, 1983, CMU Robotics Institute.
Uses infrared led's and a photo-diode sensor. Compute the position
of the spot by triangulation, much of it is analog therefore the
positions can be read out at will.
BibRef
8300
Kanade, T.[Takeo],
Kano, H.,
Kimura, S.,
Yoshida, A., and
Oda, K.,
Development of a Video-Rate Stereo Machine,
IROS95(95-100).
BibRef
9500
Earlier: A1 Only:
ARPA94(I:549-557).
BibRef
Kanade, T.,
Oda, K.,
Yoshida, A.,
Tanaka, M., and
Kano, H.,
Video-Rate Z Keying: A New Method for Merging Images,
CMU-RI-TR-95-38, December 1995.
BibRef
9512
Kanade, T.,
Yoshida, A.,
Oda, K.,
Kano, H., and
Tanaka, M.,
A Stereo Machine for Video-Rate Dense Depth Mapping and
Its New Applications,
CVPR96(196-202).
IEEE Abstract.
IEEE DOI
BibRef
9600
Earlier: A1 only:
ARPA96(805-811).
BibRef
Harrison, D.D., and
Weir, M.P.,
High-Speed Triangulation-Based 3-D Imaging with Orthonormal Data
Projections and Error Detection,
PAMI(12), No. 4, April 1990, pp. 409-416.
IEEE Abstract.
IEEE DOI
BibRef
9004
Wu, C.K.,
Wang, D.Q., and
Bajcsy, R.K.,
Acquiring 3-D Spatial Data of a Real Object,
CVGIP(28), No. 1, October 1984, pp. 126-133.
Elsevier DOI (UPenn) Stereo analysis of an object on a turntable.
BibRef
8410
Windecker, R.,
Fleischer, M.,
Tiziani, H.J.,
Three-Dimensional Topometry with Stereo Microscopes,
OptEng(36), No. 12, December 1997, pp. 3372-3377.
9801
BibRef
Samson, E.[Eric],
Laurendeau, D.[Denis],
Parizeau, M.[Marc],
Comtois, S.[Sylvain],
Allan, J.F.[Jean-François],
Gosselin, C.M.[Clément M.],
The Agile Stereo Pair for active vision,
MVA(17), No. 1, April 2006, pp. 32-50.
Springer DOI
0604
Stereo sensor, 2 2DOF platforms. Adjust gaze, vergence, baseline.
See also On the Development of the Agile Eye.
BibRef
Loranger, F.,
Laurendeau, D.,
Houd, R.,
A Fast and Accurate 3D Rangefinder Using the Biris Technology: Trid,
3DIM97(2 - Sensors)
9702
BibRef
Ng, W.B.[Wen Bin],
Zhang, Y.[Yang],
Stereoscopic imaging and computer vision of impinging fires by a single
camera with a stereo adapter,
IJIST(15), No. 2, 2005, pp. 114-122.
DOI Link
0507
BibRef
Schrameck, M.[Michel],
Voyles, R.[Richard],
Myers, T.[Tom],
Bodor, R.[Robert],
Masoud, O.[Osama],
Automatic Euclidean reconstruction for turn-table sequences by indirect
epipolar search between pairs of views,
IVC(24), No. 7, July 2006, pp. 693-708.
Elsevier DOI
0608
Structure from motion -- small rotation.
BibRef
Zhong, H.,
Lau, W.S.,
Sze, W.F.,
Hung, Y.S.,
Shape Recovery from Turntable Sequence Using Rim Reconstruction,
PR(41), No. 11, November 2008, pp. 3295-3301.
Elsevier DOI
0808
BibRef
Earlier:
Shape Recovery from Turntable Image Sequence,
ACCV07(II: 186-195).
Springer DOI
0711
Silhouette; Rim reconstruction; Surface extraction; Circular motion
BibRef
Zhou, J.,
Wan, D.,
Wu, Y.,
The Chameleon-Like Vision System,
SPMag(27), No. 5, 2010, pp. 91-101.
IEEE DOI
1003
2 PTZ cameras. Control not conventional binocular.
BibRef
Wang, D.[Daolei],
Lim, K.B.[Kah Bin],
Kee, W.L.[Wei Loon],
Geometrical approach for rectification of single-lens stereovision
system with a triprism,
MVA(24), No. 4, May 2013, pp. 821-833.
Springer DOI
1304
3 subimages by 3 virtual camers created by the triprism.
BibRef
Kee, W.L.[Wei Loon],
Bai, Y.[Yading],
Lim, K.B.[Kah Bin],
Parameter error analysis of single-lens prism-based stereovision
system,
JOSA-A(32), No. 3, March 2015, pp. 367-373.
DOI Link
1503
Image processing
BibRef
Lim, K.B.[Kah Bin],
Kee, W.L.[Wei Loon],
Wang, D.[Daolei],
Virtual camera calibration and stereo correspondence of single-lens
bi-prism stereovision system using geometrical approach,
SP:IC(28), No. 9, 2013, pp. 1059-1071.
Elsevier DOI
1310
Stereovision
BibRef
Cui, X.Y.[Xiao-Yu],
Fan, H.[Heyu],
Chen, H.S.[Hong-Sheng],
Chen, S.[Shuo],
Zhao, Y.[Yue],
Lim, K.B.[Kah Bin],
Epipolar geometry for prism-based single-lens stereovision,
MVA(28), No. 3-4, May 2017, pp. 313-326.
Springer DOI
1704
BibRef
Sorensen, S.[Scott],
Saponaro, P.[Philip],
Rhein, S.[Stephen],
Kambhamettu, C.[Chandra],
Multimodal Stereo Vision For Reconstruction In The Presence Of
Reflection,
BMVC15(xx-yy).
DOI Link
1601
BibRef
Somanath, G.[Gowri],
Rohith, M.V.,
Kambhamettu, C.[Chandra],
Single Camera Stereo System Using Prism and Mirrors,
ISVC10(II: 170-181).
Springer DOI
1011
BibRef
Peterman, V.,
DLT Based, Close Range Photogrammetric Approach To Structural
Deformation Measurement,
CloseRange10(xx-yy).
PDF File.
1006
BibRef
Rieke-Zapp, D.H.,
Bommer-Denss, B.,
Ernst, D.,
Small Format Digital Photogrammetry for Applications in the Earth
Sciences,
CloseRange10(xx-yy).
PDF File.
1006
BibRef
Hahne, U.[Uwe],
Alexa, M.[Marc],
Depth Imaging by Combining Time-of-Flight and On-Demand Stereo,
Dyn3D09(70-83).
Springer DOI
0909
BibRef
Lee, D.H.[Doo-Hyun],
Kweon, I.S.[In-So],
Cipolla, R.[Roberto],
A Biprism-Stereo Camera System,
CVPR99(I: 82-87).
IEEE Abstract.
IEEE DOI Single camera to get stereo. Rather than a mirror use a prism.
For small field of view, and nearby objects.
BibRef
9900
Chapter on Stereo: Three Dimensional Descriptions from Two or More Views, Binocular, Trinocular continues in
Stereo Using Three Views, Trinocular Stereo .