Image Motion Analysis

Bibliography compiled by Laurenz Wiskott in context of the research project Segmentation from motion

Scope: This bibliography contains references to algorithms for motion analysis based on optical flow.

Support level: Low - 1999. This bibliography is not well supported. It contains references to papers I happened to have and references I came across while maintaining other bibliographies.

Publication types: Journal articles only. To keep effort low and quality high, I have confined this bibliography to journal articles only. Red titles indicate survey articles.

Online papers: An 'A' or 'P' (or 'T' for text only) after a reference link indicates that it leads to an abstract or full paper, respectively. Upper case letters refer to online documents provided by a journal, which might be accessible only to subscribers (indicated by a '?'). Lower case letters refer to online documents provided by an author. Also the links at the end of the references are differentiated in this way by upper and lower case letters at the beginning of the words 'abstract.html' etc. and by a '?', if the corresponding document is only accessible to subscribers. The site location is indicated by a preceding .uk, .com, etc.

BibTeX: A bibtex file for the journal article references is also available (compressed and uncompressed).

Feedback: Please feel free to send me any kind of feedback about this bibliography.

Related Resources

Bibliography Motion Processing (a superset of this bibliography)
Bibliography Depth from Stereo
Bibliography Optical Flow Estimation
Bibliography Segmentation from Motion
Bibliography Visual Tracking
Bibliography Video Coding

References

261 references, 12 (4%) abstracts online, 8 (3%) papers online.

1. Adiv85.: Adiv, G. (1985).
Determining Three-Dimensional Motion and Structure from Optical Flow Generated by Several Moving Objects
IEEE Transactions on Pattern Analysis and Machine Intelligence, 7(4):384-401.
2. Adiv89.: Adiv, G. (1989).
Determining three-dimensional motion structure from optic flow generated by several moving objects
IEEE Transactions on Pattern Analysis and Machine Intelligence, 11(5):477-489.
3. AggaCaiLiao+98.: Aggarwal, J.K., Cai, Q., Liao, W., and Sabata, B. (May 1998).
Nonrigid Motion Analysis: Articulated and Elastic Motion
Computer Vision and Image Understanding, 70(2):142-156.
4. AggaDuda75.: Aggarwal, J.K. and Duda, R.O. (1975).
Computer Analysis of Moving Polygonal Images
IEEE Transactions on Computers, 24(10):966-976.
5. AggaNand88.: Aggarwal, J.K. and Nandhakumar, N. (1988).
On the computation of motion from sequences of images - A review
Proceedings of the IEEE, 76(8):917-935.
6. AncoPogg95.: Ancona, N. and Poggio, T. (1995).
Optical flow from 1-D correlation: application to a simple time-to-crash detector
International Journal of Computer Vision, 14(2):131-146.
7. ArgyTrahOrph98.: Argyros, A.A., Trahanias, P.E., and Orphanoudakis, S.C. (April 1998).
Robust Regression for the Detection of Independent 3D Motion by a Binocular Observer
Real-Time Imaging, 4(2):125-141.
8. AsadTsuj83.: Asada, M. and Tsuji, S. (1983).
Representation of three-dimensional motion in dynamic scenes
Computer Vision, Graphics and Image Processing, 21:118-144.
9. AzarPent94.: Azarbayejani, A. and Pentland, A.P. (1994).
Recursive Estimation of Motion, Structure, and Focal Length
IEEE Transactions on Pattern Analysis and Machine Intelligence, 17(6):545-561.
10. AzarStarHoro+93.: Azarbayejani, A., Starner, T., Horowitz, B., and Pentland, A.P. (June 1993).
Visually Controlled Graphics
IEEE Transactions on Pattern Analysis and Machine Intelligence, 15(6):602-605.
11. BakuKuznLozi+92.: Bakut, P.A., Kuznetsov, M.V., Lozin, K.R., and Ryakhin, A.D. (1992).
Three-dimensional surface structure reconstruction from optic flow, produced by rotation of rigid body
Optoelectronics, Instrumentation and Data Processing, (1):64-66.
12. BallKimb83: Ballard, D.H. and Kimball, O.A. (April 1983).
Rigid Body Motion from Depth and Optical Flow
Computer Vision, Graphics and Image Processing, 22(1):95-115.
13. Barn92a.: Barniv, Y. (1992 a).
Application of velocity filtering to optical-flow passive ranging
IEEE Transactions on Aerospace and Electronic Systems, 28(4):957-969.
14. Barn92b.: Barniv, Y. (1992 b).
Error analysis of combined optical-flow and stereo passive ranging
IEEE Transactions on Aerospace and Electronic Systems, 28(4):978-989.
15. BarrLipt94.: Barron, J.L. and Liptay, A. (1994).
Optical flow to measure minute increments in plant growth
Bioimaging, 2(1):57-61.
16. BearZissMurr97.: Beardsley, P.A., Zisserman, A.P., and Murray, D.W. (1997).
Projective and Affine Structure from Motion Recovery
International Journal of Computer Vision, 13(3):437-442 .
17. Berg88.: Bergholm, F. (1988).
Motion from flow along contour: A note on robustness and ambiguous cases
International Journal of Computer Vision, 3:395-415.
18. BergCarl91.: Bergholm, F. and Carlsson, S. (March 1991).
A theory of optical flow
Computer Vision, Graphics and Image Processing: Image Understanding, 53(2):171-188.
19. Beus93.: Beusmans, J.M.H. (1993).
Computing the direction of heading from affine image flow
Biological Cybernetics, 70(2):123-136.
20. BollBakeMari87.: Bolles, R.C., Baker, H.H., and Marimont, D.H. (1987).
Epipolar-Plane Image Analysis: An Approach to Determining Structure from Motion
International Journal of Computer Vision, 1(1):7-55.
21. BoutLala93.: Bouthemy, P. and Lalande, P. (June 1993).
Recovery of moving object masks in an image sequence using local spatiotemporal contextual information
Optical Engineering, 32(6):1205-1212.
22. BozdTekaOnur94a.: Bozdagi, G., Tekalp, A.M., and Onural, L. (June 1994 a).
3-D Motion Estimation and Wireframe Model Adaptation Including Photometric Effects for Model-Based Coding of Facial Image Sequences
IEEE Transactions on Circuits and Systems for Video Technology, 4(3):246-257.
23. BozdTekaOnur94b.: Bozdagi, G., Tekalp, A.M., and Onural, L. (September 1994 b).
An Improvement to MBASIC Algorithm for 3-D Motion and Depth Estimation
IEEE Transactions on Image Processing, 3(5):711-717.
24. BradReidMurr97.: Bradshaw, K.J., Reid, I.R., and Murray, D.W. (March 1997).
The active recovery of 3D motion trajectories and their use in prediction
IEEE Transactions on Pattern Analysis and Machine Intelligence, 19(3):219-234.
25. BroiChel86: Broida, T.J. and Chellappa, R. (1986).
Estimation of Object Motion Parameters from Noisy Images
IEEE Transactions on Pattern Analysis and Machine Intelligence, 8(1):90-99.
26. BroiChel89.: Broida, T.J. and Chellappa, R. (1989).
Uniqueness and Performance Measure Results for 3-D Motion Estimation from a Monocular Sequence of Noisy Images
J. of the Optical Society of America, 6:879-889.
27. BrooChojBaum97.: Brooks, M.J., Chojnacki, W., and Baumela, L. (1997).
Determining the egomotion of an uncalibrated camera from instantaneous optical flow
J. of the Optical Society of America A, 14(10):2670-2677.
28. BrusHorn83.: Bruss, A.R. and Horn, B.K.P. (1983).
Passive Navigation
Computer Vision, Graphics and Image Processing, 21(1):3-20.
29. BuxtBuxt83a.: Buxton, B.F. and Buxton, H. (1983 a).
Monocular Depth Perception from Optical Flow by Space Time Signal Processing
Proceedings of the Royal Society of London, Series B, 218:27-47.
30. BuxtBuxtMurr+85a.: Buxton, B.F., Buxton, H., Murray, D.W., and Williams, N.S. (1985 a).
Machine perception of visual motion
GEC Journal of Research, 3(3):145-161.
31. BuxtBuxtMurr+85b.: Buxton, B.F., Buxton, H., Murray, D.W., and Williams, N.S. (1985 b).
Structure from Motion Algorithms for Computer Vision on an SIMD Architecture
Computer Physics Communications, 37:273-280.
32. CameGrosGuen98.: Cameron, S., Grossberg, S., and Guenther, F.H. (15. February 1998).
A Self-Organizing Neural Network Architecture for Navigation Using Optic Flow
Neural Computation, 10(2):313-352.
33. CampVerr92: Campani, M. and Verri, A. (1992).
Motion analysis from first-order properties of optical flow
Computer Vision, Graphics and Image Processing: Image Understanding, 56(1):90-107.
34. CappMecoDBimb93: Cappellini, V., Mecocci, A., and Del Bimbo, A. (1993).
Motion analysis and representation in computer vision
Journal of Circuits, Systems and Computers, 3(4):797-831.
35. CastMurrScot+88:: Castelow, D.A., Murray, D.W., Scott, G.L., and Buxton, B.F. (1988).
Matching Canny edgels to compute the principal components of optic flow
Image and Vision Computing, 6(2):129-136.
36. CédrShah95.: Cédras, C. and Shah, M.A. (March 1995).
Motion Based Recognition: A Survey
Image and Vision Computing, 13(2):129-155.
37. ChauBoukBout+96.: Chaumette, F., Boukir, S., Bouthemy, P., and Juvin, D. (May 1996).
Structure from controlled motion
IEEE Transactions on Pattern Analysis and Machine Intelligence, 18(5):492-504.
38. ChenHuan90: Chen, H.H. and Huang, T.S. (1990).
Matching 3-D line segments with applications to multiple-object motion estimation
IEEE Transactions on Pattern Analysis and Machine Intelligence, 12(10):1002-1008.
39. ChenShirAsad93: Chen, H.J., Shirai, Y., and Asada, M. (1993).
Detecting multiple rigid image motions from an optical flow field obtained with multi-scale, multi-orientation filters
IEICE Transactions on Information and Systems (D), E76-D(10):1253-1262.
40. ChihCaim97.: Chih-Ho, Y. and Caimi, F.M. (1997).
Determination of horizontal motion through optical flow computations
Journal of Computer Science and Technology, 12(2):133-144.
41. ChoPark99.: Cho, D.S. and Park, R.H. (1999).
Object-based very low bit-rate coding using motion parameter estimation based on multiple frame prediction
Journal of Visual Communication and Image Representation, 10.
42. ChowAgga77.: Chow, W.K. and Aggarwal, J.K. (1977).
Computer Analysis of Planar Curvilinear Moving Images
IEEE Transactions on Computers, 26(2):179-185.
43. Cloc80.: Clocksin, W.F. (1980).
Perception of Surface Slant and Edge Labels from Optical Flow: A Computational Approach
Perception, 9:253-269.
44. CsurZellZhan+97.: Csurka, G., Zeller, C., Zhang, Z., and Faugeras, O.D. (October 1997).
Characterizing the Uncertainty of the Fundamental Matrix
Computer Vision and Image Understanding, 68(1):18-36.
45. DVitoTsot96.: Da Vitoria Lobo, N. and Tsotsos, J.K. (June 1996).
Computing Egomotion and Detecting Independent Motion from Image Motion Using Collinear Points
Computer Vision and Image Understanding, 64(1):21-52.
46. DMichTorrUras93.: De Micheli, E., Torre, V., and Uras, S. (1993).
The accuracy of the computation of optical flow and of the recovery of motion parameters
IEEE Transactions on Pattern Analysis and Machine Intelligence, 15:434-447.
47. DijkSnoeGiel94.: Dijkstra, T.M.H., Snoeren, P.R., and Gielen, C.C.A.M. (1994).
Extraction of three-dimensional shape from optic flow: a geometric approach
J. of the Optical Society of America A, 11(8):2184-2196.
48. DresNage82.: Dreschler, L. and Nagel, H.H. (1982).
Volumetric Model and 3D Trajectory of a Moving Car Derived from Monocular TV Frame Sequences of a Street Scene
Computer Vision, Graphics and Image Processing, 20:199-228.
49. DugeSans95.: Dugelay, J.L. and Sanson, H. (1995).
Differential methods for the identification of 2D and 3D motion models in image sequences
Signal Processing: Image Communication, 7:105-127.
50. DvorKongSori92.: Dvornychenko, V.N., Kong, M.S., and Soria, S.M. (1992).
Mission parameters derived from optical flow
Journal of Mathematical Imaging and Vision, 2(1):27-38.
51. EarnBlos96.: Earnshaw, A.M. and Blostein, S.D. (September 1996).
The performance of camera translation direction estimators from optical flow: analysis, comparison, and theoretical limits
IEEE Transactions on Pattern Analysis and Machine Intelligence, 18(9):927-932.
52. EarnBlos98.: Earnshaw, A.M. and Blostein, S.D. (January 1998).
A Perturbation Analysis and Performance Bound for the Estimation of 3-D Camera Translation Direction
Canadian Journal of Electrical and Computer Engineering, 23(1/2):25-37.
53. EndoToriTaga94.: Endoh, T., Toriu, T., and Tagawa, N. (1994).
A superior estimator to the maximum likelihood estimator on 3-D motion estimation from noisy optical flow
IEICE Transactions on Information and Systems (D), E77-D(11):1240-1246.
54. Enke91.: Enkelmann, W. (1991).
Obstacle detection by evaluation of optical flow fields from image sequences
Image and Vision Computing, 9(3):160-168.
55. FangHuan84.: Fang, J.Q. and Huang, T.S. (1984).
Some experiments on estimating the 3-D motion parameters of a rigid body from two consecutive image frames
IEEE Transactions on Pattern Analysis and Machine Intelligence, 6:545-554.
56. FaugPapa93.: Faugeras, O.D. and Papadopoulo, T. (1993).
A Theory of the Motion Fields of Curves
International Journal of Computer Vision, 10(2):125-156.
(.fr-paper.ps.gz)
57. FaugRobeLave+98.: Faugeras, O.D., Robert, L., Laveau, S., Csurka, G., Zeller, C., Gauclin, C., and Zoghlami, I. (1. March 1998).
3-D Reconstruction of Urban Scenes from Image Sequences
Computer Vision, Graphics and Image Processing: Image Understanding, 69(3):292-309.
(.fr-text.ps.gz, .fr-figures.ps.gz, .fr-paper.ps.gz)
58. FlinChan81.: Flinchbaugh, B.E. and Chandrasekaran, B. (1. August 1981).
A Theory of Spatio-Temporal Aggregation for Vision
Artificial Intelligence, 17(1-3):387-407.
59. FranBout90.: François, E. and Bouthemy, P. (November 1990).
Derivation of Qualitative Information in Motion Analysis
Image Vis. Comput. J., 8(4):279-287.
60. GiacTorr96.: Giachetti, A. and Torre, V. (1996).
The use of optical flow for the analysis of non-rigid motions
International Journal of Computer Vision, 18(3):255-279.
61. GohMart94.: Goh, W.B. and Martin, G.R. (May 1994).
Model-Based Multiresolution Motion Estimation in Noisy Images
Computer Vision, Graphics and Image Processing: Image Understanding, 59(3):307-319.
62. GramMalaTzov+95.: Grammalidis, N., Malassiotis, S., Tzovaras, D., and Strintzis, M.G. (11. August 1995).
Stereo image sequence coding based on three-dimensional motion estimation and compensation
Signal Processing: Image Communication, 7(2):129-145.
63. GuShirAsad95: Gu, H., Shirai, Y., and Asada, M. (1995).
Motion description and segmentation of multiple moving objects in a long image sequence
IEICE Transactions on Information and Systems (D), E78-D(3):277-289.
64. GuShirAsad96: Gu, H., Shirai, Y., and Asada, M. (January 1996).
MDL-based segmentation and motion modeling in a long image sequence of scene with multiple independently moving objects
IEEE Transactions on Pattern Analysis and Machine Intelligence, 18(1):58-64.
65. GuptKana95.: Gupta, N.C. and Kanal, L.N. (30. November 1995).
3-D Motion Estimation from Motion Field
Artificial Intelligence, 78(1/2):45-86.
66. HadaIshaGur80.: Hadani, I., Ishai, G., and Gur, G. (1980).
Visual Stability and Space Perception in Monocular Perception: Mathematical Model
J. of the Optical Society of America, 70:60-65.
67. HaraJooLee+89.: Haralick, R.M., Joo, H., Lee, C.N., Zhuang, X., Vaidya, V.G., and Kim, M.B. (1989).
Pose estimation from corresponding point data
IEEE Transactions on Systems, Man and Cybernetics, 19:1426-1446.
68. HaraZhua86.: Haralick, R.M. and Zhuang, X. (June 1986).
A note on 'Rigid body motion from depth and optical flow'
Computer Vision, Graphics and Image Processing, 34(3):372-387.
69. HeegJeps92.: Heeger, D.J. and Jepson, A.D. (1992).
Subspace Methods for Recovering Rigid Motion I: Algorithm and Implementation
International Journal of Computer Vision, 7(2):95-117.
70. Heik95.: Heikkonen, J. (1. September 1995).
Recovering 3D motion parameters from optical flow field using randomized Hough transform
Pattern Recognition Letters, 16(9):971-978.
71. HoltNetr93.: Holt, R. and Netravali, A.N. (1993).
Motion from optic flow: multiplicity of solutions
Journal of Visual Communication and Image Representation, 4(1):14-24.
72. Horn87: Horn, B.K.P. (1987).
Motion Fields are Hardly Ever Ambiguous
International Journal of Computer Vision, 1(3):239-258.
73. HornWeld88: Horn, B.K.P. and Weldon, E.J.J. (1988).
Direct Methods for Recovering Motion
International Journal of Computer Vision, 2(1):51-76.
74. HuanLee89.: Huang, T.S. and Lee, C.B. (1989).
Motion and Structure from Orthographic Projections
IEEE Transactions on Pattern Analysis and Machine Intelligence, 11:536-540.
75. HuanNetr94.: Huang, T.S. and Netravali, A.N. (1994).
Motion and Structure from Feature Correspondences: A Review
Proceedings of the IEEE, 82(2):252-268.
76. HuanPalaZhua+95: Huang, Y., Palaniappan, K., Zhuang, X., and Cavanaugh, J.E. (December 1995).
Optic flow field segmentation and motion estimation using a robust genetic partitioning algorithm
IEEE Transactions on Pattern Analysis and Machine Intelligence, 17(12):1177-1190.
77. HummSund93.: Hummel, R. and Sundareswaran, V. (1. May 1993).
Motion parameter estimation from global flow field data
IEEE Transactions on Pattern Analysis and Machine Intelligence, 15(5):459-476.
78. IranPele93.: Irani, M. and Peleg, S. (December 1993).
Motion Analysis for Image Enhancement: Resolution, Occlusion, and Transparency
Journal of Visual Communication and Image Representation, 4(4):324-335.
(.il-abstract.html, .il-paper.ps.Z, .il-paper.ps.gz)
79. IranRousPele97.: Irani, M., Rousso, B., and Peleg, S. (March 1997).
Recovery of Ego-Motion Using Region Alignment
IEEE Transactions on Pattern Analysis and Machine Intelligence, 19(3):268-272.
(-abstract, .il-abstract.html, -paper, .il-paper.ps.Z, .il-paper.pdf)
80. IuWohn91.: Iu, S.L. and Wohn, K.Y. (1991).
Recovery of 3-D motion of a single particle
Pattern Recognition, 24(3):241-252.
81. JacoWech82.: Jacobson, L. and Wechsler, H. (1982).
A paradigm for invariant object recognition of brightness, optical flow and binocular disparity images
Pattern Recognition Letters, 1(1):61-68.
82. JacoChieSela80.: Jacobus, C.J., Chien, R.T., and Selander, J.M. (1980).
Motion detection and analysis by matching graphs of intermediate-level primitives
IEEE Transactions on Pattern Analysis and Machine Intelligence, 2(6):495-510.
83. Jain81b: Jain, R.C. (1981 b).
Dynamic Scene Analysis Using Pixel-Based Processes
Computer, 14(8):12-18.
84. Jain83.: Jain, R.C. (1983).
Direct Computation of the Focus of Expansion
IEEE Transactions on Pattern Analysis and Machine Intelligence, 5(1):58-64.
85. Jain84b:: Jain, R.C. (1984 b).
Difference and accumulative difference pictures in dynamic scene analysis
Image and Vision Computing, 2(2):99-108.
86. JainNage79: Jain, R.C. and Nagel, H.H. (1979).
On the analysis of accumulative difference pictures from image sequences of real world scenes
IEEE Transactions on Pattern Analysis and Machine Intelligence, 1(2):206-214.
87. JayaJain83.: Jayaramamurthy, S.N. and Jain, R.C. (February 1983).
Approach to the Segmentation of Textured Dynamic Scenes
Computer Vision, Graphics and Image Processing, 21(2):239-261.
88. JeriJain84: Jerian, C. and Jain, R.C. (1984).
Determining Motion Parameters for Scenes with Translation and Rotation
IEEE Transactions on Pattern Analysis and Machine Intelligence, 6(4):523-530.
89. Joha73.: Johansson, G. (1973).
Visual Perception of Biological Motion and a Model for its Analysis
Perception and Psychophysics, 14:201-211.
90. JungWohn97a.: Jung, S.K. and Wohn, K.Y. (October 1997 a).
3-D tracking and motion estimation using hierarchical Kalman filter
IEE Proceedings on Vision, Image and Signal Processing, 144(5):293-298.
91. JungWohn97b.: Jung, S.K. and Wohn, K.Y. (December 1997 b).
Tracking and motion estimation of the articulated object : A hierarchical Kalman filter approach
Real-Time Imaging, 3(6):415-432.
92. JungWohn98.: Jung, S.K. and Wohn, K.Y. (29. April 1998).
A model-based 3D tracking of rigid objects from a sequence of multiple perspective view
Pattern Recognition Letters, 19(5/6):499-512.
93. KagoMiik90.: Kago, K. and Miike, H. (1990).
Optical flow analysis based on spatio-temporal correlation of dynamic image
Systems and Computers in Japan, 21(4):96-108.
94. Kana84.: Kanatani, K. (1. July 1984).
Detection of Surface Orientation and Motion from Texture by a Stereo-Logical Technique
Artificial Intelligence, 23(2):213-237.
95. Kana85b.: Kanatani, K. (1985 b).
Detecting the Motion of a Planar Surface by Line and Surface Integrals
Computer Vision, Graphics and Image Processing, 29(1):13-22.
96. Kana86.: Kanatani, K. (August 1986).
Structure and motion from optical flow under orthographic projection
Computer Vision, Graphics and Image Processing, 35(2):181-199.
97. Kana87.: Kanatani, K. (May 1987).
Structure and motion from optical flow under perspective projection
Computer Vision, Graphics and Image Processing, 38(2):122-146.
98. Kana88.: Kanatani, K. (March 1988).
Transformation of optical flow by camera rotation
IEEE Transactions on Pattern Analysis and Machine Intelligence, 10(2):131-143.
99. Kana93.: Kanatani, K. (1993).
3-D interpretation of optical flow by renormalization
International Journal of Computer Vision, 11(3):267-282.
100. KappTPasKoen+96b.: Kappers, A.M.L., te Pas, S.F., Koenderink, J.J., and van Doorn, A.J (1996 b).
Detection of divergence in optical flow fields
J. of the Optical Society of America A, 13(2):227-235.
101. KappVDoorKoen94.: Kappers, A.M.L., van Doorn, A.J, and Koenderink, J.J. (1994).
Detection of vorticity in optical flow fields
J. of the Optical Society of America A, 11(1):48-54.
102. KawaSugiSugi89.: Kawamura, A., Sugie, N., and Sugihara, K. (1989).
Recovery of nonrigid curvilinear objects using optical flow
Systems and Computers in Japan, 20(3):47-57.
103. KellKais95.: Kellman, P.J. and Kaiser, M.K. (1995).
Extracting object motion during observer motion: combining constraints from optic flow and binocular disparity
J. of the Optical Society of America A, 12(3):623-625.
104. KimAgga87.: Kim, Y.C. and Aggarwal, J.K. (1987).
Determining object motion in a sequence of stereo images
IEEE Transactions on Robotics and Automation, 3(6):599-614.
105. Koch93.: Koch, R. (1993).
Automatic reconstruction of buildings from stereoscopic image sequences
Computer Graphics Forum, 12(3):C339-C350.
106. KoenVDoor75.: Koenderink, J.J. and van Doorn, A.J (1975).
Invariant Properties of the Motion Parallax Field Due to the Movement of Rigid Bodies Relative to an Observer
Optica Acta, 22(9):773-791.
107. KoenVDoor87.: Koenderink, J.J. and van Doorn, A.J (1987).
Facts on optic flow
Biological Cybernetics, 56(4):247-254.
108. KoenVDoor91.: Koenderink, J.J. and van Doorn, A.J (1991).
Affine structure from motion
J. of the Optical Society of America A, 8(2):377-385.
109. KoenVDoor92.: Koenderink, J.J. and van Doorn, A.J (1992).
Second-order optic flow
J. of the Optical Society of America A, 9(4):530-538.
110. KompTzovStri98a.: Kompatsiaris, I., Tzovaras, D., and Strintzis, M.G. (6. November 1998 a).
Flexible 3D Motion Estimation and Tracking for Multiview Image Sequence Coding
Signal Processing: Image Communication, 14(1/2):95-110.
111. LappRaus93.: Lappe, M. and Rauschecker, J.P. (1993).
A Neural Network for the Processing of Optic Flow from Ego-Motion in Man and Higher Mammals
Neural Computation, 5(3):374-391.
112. Lee80.: Lee, D.N. (1980).
The optic flow field: The foundation of vision
Philosophical Transactions of the Royal Society of London, Series B, B290:169-179.
113. LiuHuan88.: Liu, Y. and Huang, T.S. (1988).
A linear algorithm for determining motion and structure from line correspondences
Computer Vision, Graphics and Image Processing, 44(1):35-57.
114. LiuHuan93.: Liu, Y. and Huang, T.S. (1993).
Vehicle-type motion estimation from multi-frame images
IEEE Transactions on Pattern Analysis and Machine Intelligence, 15(8):802-808.
115. Long81.: Longuet-Higgins, H.C. (1981).
A Computer Algorithm for Reconstructing a Scene from Two Projections
Nature, 293:133-135.
116. Long84.: Longuet-Higgins, H.C. (1984).
The Visual Ambiguity of a Moving Plane
Proceedings of the Royal Society of London, Series B, 223:165-175.
117. LongPraz80.: Longuet-Higgins, H.C. and Prazdny, K. (1980).
The interpretation of a moving retinal image
Proceedings of the Royal Society of London, Series B, 208:385-397.
118. LuoMull89.: Luo, R.C. and Mullen, R.E.J. (1989).
A modified optical flow approach for robotic tracking and acquisition
Journal of Robotic Systems, 6(5):489-508.
119. LuonFaug97.: Luong, Q.T. and Faugeras, O.D. (1997).
Camera Calibration, Scene Motion and Structure recovery from point correspondences and Fundamental matrices
International Journal of Computer Vision, 22(3):261-289.
(.fr-paper.ps.gz)
120. MalaStri97a.: Malassiotis, S. and Strintzis, M.G. (January 1997 a).
Model Based Joint Motion and Structure Estimation From Stereo Images
Computer Vision and Image Understanding, 65(1):79-94.
121. MallBultLitt+91.: Mallot, H.A., Bülthoff, H.H., Little, J.J., and Bohrer, S. (1991).
Inverse perspective mapping simplifies optical flow computation and obstacle detection
Biological Cybernetics, 64(3):177-185.
122. MarrUllm81.: Marr, D. and Ullman, S. (1981).
Directional Selectivity and its Use in Early Visual Processing
Proceedings of the Royal Society of London, Series B, 211:151-180.
123. MartAgga78.: Martin, W.N. and Aggarwal, J.K. (1978).
Dynamic Scene Analysis
Computer Graphics and Image Processing, 7(3):356-374.
124. MartAgga79: Martin, W.N. and Aggarwal, J.K. (1979).
Computer analysis of dynamic scenes containing curvilinear figures
Pattern Recognition, 11(3):169-178.
125. Mase91.: Mase, K. (October 1991).
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Motion of an Uncalibrated Stereo Rig: Self-Calibration and Metric Reconstruction
IEEE Transactions on Robotics and Automation, 12(1):103-113.
(.fr-abstract, .fr-paper.ps.gz)
259. ZhenBillMayh+96: Zheng, Y., Billings, S.A., Mayhew, J.E.W., and Frisby, J.P. (1996).
Motion parameter recovery and 3D scene segmentation
Electronics Letters, 32(10):884-885.
260. ZhuaHuanAhuj+88.: Zhuang, X., Huang, T.S., Ahuja, N., and Haralick, R.M. (June 1988).
A simplified linear optic flow-motion algorithm
Computer Vision, Graphics and Image Processing, 42(3):334-344.
261. ZhuaHuanHara86.: Zhuang, X., Huang, T.S., and Haralick, R.M. (1986).
Two-view motion analysis: A unified algorithm
J. of the Optical Society of America A, 3(9):1492-1500.

Author Index

315 authors, 29 (9%) with homepage. First author references are printed boldface.

Country, City	Author	R	A	P	Reference Keys
	Adiv, G.	-	-	-	Adiv85. Adiv89.
	Aggarwal, J. K.	-	-	-	AggaDuda75. ChowAgga77. MartAgga78. MartAgga79 RoacAgga80. WebbAgga81. WebbAgga82. KimAgga87. AggaNand88. MitiGrisAgga88. TsukAgga88. AggaCaiLiao+98.
	Ahuja, Narendra	93	-	-	WengHuanAhuj87. ZhuaHuanAhuj+88. WengHuanAhuj92. WengAhujHuan93. SullAhuj94.
	Aicardi, F.	-	-	-	VerrAica90.
	Allen, Bill	-	-	-	RangAlleShah93.
	Aloimonos, J.	-	-	-	NelsAloi89.
	Aloimonos, Y.	-	-	-	SharAloi96.
	Ancona, N.	-	-	-	AncoPogg95.
	Argyros, Antonis A.	-	-	-	ArgyTrahOrph98.
	Asada, Minoru	-	-	-	AsadTsuj83. ChenShirAsad93 GuShirAsad95 GuShirAsad96
	Azarbayejani, Ali	-	-	-	AzarStarHoro+93. AzarPent94.
	Bahl, R.	-	-	-	SudhBaneBisw+95.
	Baker, H. H.	-	-	-	BollBakeMari87.
	Bakut, P. A.	-	-	-	BakuKuznLozi+92.
USA, NY, Rochester	Ballard, Dana H.				BallKimb83
	Banerjee, S.	-	-	-	SudhBaneBisw+95.
	Barnard, Stephen T.	-	-	-	ThomBarn81
	Barniv, Y.	-	-	-	Barn92a. Barn92b.
	Barron, J. L.	-	-	-	BarrLipt94.
	Baumela, L.	-	-	-	BrooChojBaum97.
	Beardsley, P. A.	-	-	-	BearZissMurr97.
	Bergholm, F.	-	-	-	Berg88. BergCarl91.
	Berzins, Valdis A.	-	-	-	ThomMutcBerz85
	Beusmans, J. M. H.	-	-	-	Beus93.
	Beverley, K. I.	-	-	-	RegaBeve85.
	Billings, S. A.	-	-	-	ZhenBillMayh+96
	Biswas, K. K.	-	-	-	SudhBaneBisw+95.
	Blake, A.	-	-	-	SincBlakSmit+93. SincBlakMurr94.
	Blostein, Steven D.	94	-	94	EarnBlos96. EarnBlos98.
	Bohrer, S.	-	-	-	MallBultLitt+91.
	Bolles, R. C.	-	-	-	BollBakeMari87.
	Boukir, Samia	-	-	-	ChauBoukBout+96.
	Bouthemy, Patrick	89	-	94	FranBout90. BoutLala93. OdobBout95. ChauBoukBout+96. MitiBout96. SundBoutChau96.
	Bozdagi, Gozde	-	-	-	BozdTekaOnur94a. BozdTekaOnur94b.
	Bradshaw, Kevin J.	-	-	-	BradReidMurr97.
	Broida, Ted J.	-	-	-	BroiChel86 BroiChel89.
	Brooks, M. J.	-	-	-	BrooChojBaum97.
	Bruss, A. R.	-	-	-	BrusHorn83.
	Bülthoff, Heinrich H.	-	-	-	MallBultLitt+91.
	Buxton, Bernard F.	-	-	-	BuxtBuxt83a. BuxtBuxtMurr+85a. BuxtBuxtMurr+85b. CastMurrScot+88 MurrCastBuxt88. MurrCastBuxt89.
	Buxton, Hilary	80	-	-	BuxtBuxt83a. BuxtBuxtMurr+85a. BuxtBuxtMurr+85b.
	Cai, Q.	-	-	-	AggaCaiLiao+98.
	Caimi, F. M.	-	-	-	ChihCaim97.
	Cameron, Seth	-	-	-	CameGrosGuen98.
	Campani, Marco	-	-	-	CampVerr92
	Cappellini, V.	-	-	-	CappMecoDBimb93
	Carlsson, S.	-	-	-	BergCarl91.
	Castelow, D. A.	-	-	-	CastMurrScot+88 MurrCastBuxt88. MurrCastBuxt89.
	Cavanaugh, Joseph E.	-	-	-	HuanPalaZhua+95
	Cédras, Claudette	-	-	-	CédrShah95.
	Chandrasekaran, B.	-	-	-	FlinChan81.
	Chaumette, François	-	-	-	ChauBoukBout+96. SundBoutChau96.
	Chellappa, Rama	80	-	-	BroiChel86 BroiChel89. YounChel90. YounChel92. WuChel95.
	Chen, Homer H.	-	-	-	ChenHuan90
	Chen, Hsiao-Jing	-	-	-	ChenShirAsad93
	Chien, R. T.	-	-	-	JacoChieSela80.
	Chih-Ho, Yu	-	-	-	ChihCaim97.
	Cho, D.-S.	-	-	-	ChoPark99.
	Chojnacki, W.	-	-	-	BrooChojBaum97.
	Chow, W. K.	-	-	-	ChowAgga77.
	Clifford, S. P.	-	-	-	NasrClifLiu89.
	Clocksin, W. F.	-	-	-	Cloc80.
	Convey, H. D.	-	-	-	TsotMyloConv+80.
	Csurka, Gabriella	-	-	-	CsurZellZhan+97. FaugRobeLave+98.
	Da Vitoria Lobo, Niels	-	-	-	DVitoTsot96.
	Davis, Larry S.	-	-	94	WohnDaviThri83.
	De Micheli, E.	-	-	-	DMichTorrUras93.
	Del Bimbo, Alberto	-	-	-	CappMecoDBimb93
	Dijkstra, T. M. H.	-	-	-	DijkSnoeGiel94.
	Dreschler, L.	-	-	-	DresNage82.
	Duda, R. O.	-	-	-	AggaDuda75.
	Dugelay, J. L.	-	-	-	DugeSans95.
	Duncan, J. S.	-	-	-	NiesDuncNiel+97.
	Duncan, James H.	-	-	-	WangDunc96.
	Dunn, Stanley	-	-	-	OstuDunn96
	Dvornychenko, V. N.	-	-	-	DvorKongSori92.
	Earnshaw, A. Mark	-	-	-	EarnBlos96. EarnBlos98.
	Endoh, T.	-	-	-	TagaToriEndo93. EndoToriTaga94. TagaToriEndo94. TagaToriEndo96.
	Enkelmann, W.	-	-	-	Enke91.
	Fang, J.-Q.	-	-	-	FangHuan84.
	Faugeras, Olivier D.	93	-	93	ZhanFaug91.a ZhanFaug92aa FaugPapa93.p ZhanFaug94.a ZhanLuonFaug96.ap CsurZellZhan+97. LuonFaug97.p FaugRobeLave+98.
	Flinchbaugh, Bruce E.	-	-	-	FlinChan81.
	Florack, L. M. J.	-	-	-	NiesDuncNiel+97.
	François, Edouard	-	-	-	FranBout90.
	Frisby, John P.	-	-	-	ZhenBillMayh+96
	Gauclin, Cyrille	-	-	-	FaugRobeLave+98.
	Giachetti, A.	-	-	-	GiacTorr96.
	Gielen, C. C. A. M.	-	-	-	DijkSnoeGiel94.
	Girosi, F.	-	-	-	UrasGiroVerr+89. VerrGiroTorr89
	Goh, Wooi Boon	-	-	-	GohMart94.
	Grammalidis, Nikos	-	-	-	GramMalaTzov+95. TzovGramStri97a.
	Grisell, R.	-	-	-	MitiGrisAgga88.
USA, MA, Boston	Grossberg, Stephen	94	-	94	CameGrosGuen98.
	Gu, Haisong	-	-	-	GuShirAsad95 GuShirAsad96
	Guenther, Frank H.	-	-	-	CameGrosGuen98.
	Gupta, Naresh C.	-	-	-	GuptKana95.
	Gur, G.	-	-	-	HadaIshaGur80.
	Hadani, I.	-	-	-	HadaIshaGur80.
	Haralick, Robert M.	-	-	-	HaraZhua86. ZhuaHuanHara86. ZhuaHuanAhuj+88. HaraJooLee+89.
	Harashima, Hiroshi	-	-	-	MoriHara91.
	Harris, M. G.	-	-	-	MeesHarr97.
	Heeger, David J.	-	-	-	HeegJeps92.
	Heikkonen, Jukka	-	-	-	Heik95.
	Holt, R.	-	-	-	HoltNetr93.
	Horn, Berthold K. P.	-	-	-	BrusHorn83. Horn87 HornWeld88 NegaHorn89.
	Horowitz, B.	-	-	-	AzarStarHoro+93.
	Huang, Thomas S.	97	-	-	TsaiHuan81. TsaiHuanZhu82. YenHuan83. FangHuan84. TsaiHuan84a. TsaiHuan84b. ZhuaHuanHara86. WengHuanAhuj87. LiuHuan88. ZhuaHuanAhuj+88. HuanLee89. ChenHuan90 WengHuanAhuj92. LiuHuan93. WengAhujHuan93. HuanNetr94.
	Huang, Yan	-	-	-	HuanPalaZhua+95
	Hummel, R.	-	-	-	HummSund93.
	Irani, Michal	91	91	93	IranPele93.ap IranRousPele97.ap
	Ishai, G.	-	-	-	HadaIshaGur80.
	Iu, Siu-Leong	-	-	-	IuWohn91.
	Jacobson, Lowell	-	-	-	JacoWech82.
	Jacobus, C. J.	-	-	-	JacoChieSela80.
	Jain, Ramesh C.	-	-	-	JainNage79 Jain81b Jain83. JayaJain83. Jain84b JeriJain84
	Jayaramamurthy, S. N.	-	-	-	JayaJain83.
	Jepson, Allan D.	91	91	91	HeegJeps92.
	Jerian, Charles	-	-	-	JeriJain84
	Johansson, G.	-	-	-	Joha73.
	Joo, H.	-	-	-	HaraJooLee+89.
	Jung, Soon Ki	-	-	-	JungWohn97a. JungWohn97b. JungWohn98.
	Juvin, Didier	-	-	-	ChauBoukBout+96.
	Kago, K.	-	-	-	KagoMiik90.
	Kaiser, M. K.	-	-	-	KellKais95.
	Kamgar-Parsi, Behrooz	-	-	-	WaxmKamgSubb87
	Kanade, Takeo	?	?	?	MattSzelKana89. TomaKana92.
	Kanal, Laveen N.	-	-	-	GuptKana95.
	Kanatani, Ken-ichi	-	-	-	Kana84. Kana85b. Kana86. Kana87. Kana88. Kana93. OhtaKana95.
	Kappers, A. M. L.	-	-	-	KappVDoorKoen94. KappTPasKoen+96b. TPasKappKoen97.
	Kawamura, A.	-	-	-	KawaSugiSugi89.
	Kellman, P. J.	-	-	-	KellKais95.
	Kim, M. B.	-	-	-	HaraJooLee+89.
	Kim, Y. C.	-	-	-	KimAgga87.
	Kimball, O. A.	-	-	-	BallKimb83
	Kittler, J.	-	-	-	WuKitt93.
	Ko, C. W.	-	-	-	PeiKoSu98.
	Koch, R.	-	-	-	Koch93.
	Koenderink, J. J.	-	-	-	KoenVDoor75. KoenVDoor87. KoenVDoor91. KoenVDoor92. KappVDoorKoen94. KappTPasKoen+96b. TPasKappKoen97.
	Kompatsiaris, Ioannis	-	-	-	KompTzovStri98a. TzovKompStri99.
	Kong, M. S.	-	-	-	DvorKongSori92.
	Kuznetsov, M. V.	-	-	-	BakuKuznLozi+92.
	Lalande, P.	-	-	-	BoutLala93.
	Lappe, M.	-	-	-	LappRaus93.
	Laveau, Stéphane	-	-	-	FaugRobeLave+98.
	Lechleider, Pamela	-	-	-	ThomLechStuc93
	Lee, C. B.	-	-	-	HuanLee89.
	Lee, C. N.	-	-	-	HaraJooLee+89.
	Lee, Denis N.	-	-	-	Lee80.
	Lee, John C. M.	-	-	-	SudhLee96.
	Liao, W.	-	-	-	AggaCaiLiao+98.
	Liou, Lin-Gwo	-	-	-	PeiLiou94a. PeiLiou94b. PeiLiou94c. PeiLiou97a PeiLiou97b.
	Liptay, A.	-	-	-	BarrLipt94.
	Little, J. J.	-	-	-	MallBultLitt+91.
	Liu, Yi	-	-	-	LiuHuan88. NasrClifLiu89. LiuHuan93.
	Loizou, G.	-	-	-	ReddLoiz96.
	Longuet-Higgins, H. C.	-	-	-	LongPraz80. Long81. Long84.
	Loomis, J. M.	-	-	-	NakaLoom74.
	Lozin, K. R.	-	-	-	BakuKuznLozi+92.
	Luo, R. C.	-	-	-	LuoMull89.
	Luong, Quang-Tuan	-	-	-	ZhanLuonFaug96.ap LuonFaug97.p
	Maekawa, T.	-	-	-	NakaOsaMaek+97.
	Malassiotis, Sotiris	-	-	-	GramMalaTzov+95. MalaStri97a.
	Malik, Jitendra	87	-	-	WebeMali97
	Mallot, Hanspeter A.	-	-	-	MallBultLitt+91.
	Mao, Zuhua	-	-	-	StriMao94
	Marimont, D. H.	-	-	-	BollBakeMari87.
	Marr, D.	-	-	-	MarrUllm81.
	Martin, Graham R.	-	-	-	GohMart94.
	Martin, W. N.	-	-	-	MartAgga78. MartAgga79
	Mase, Kenji	81	-	96	Mase91. ShizMase94.
	Matthies, L.	-	-	-	MattSzelKana89.
	Maybank, S. J.	-	-	-	Mayb86a. Mayb86b.
EUR, UK, Sheffield	Mayhew, John E. W.	-	-	-	ZhenBillMayh+96
	Mecocci, A.	-	-	-	CappMecoDBimb93
	Meese, T. S.	-	-	-	MeesHarr97.
	Meiri, A. Z.	-	-	-	Meir80.
	Meyer, Fernand G.	-	-	-	Meye94.
	Micheli, E. D.	-	-	-	MichTorrUras93.
	Miike, H.	-	-	-	KagoMiik90. NakaOsaMaek+97.
	Mitiche, A.	-	-	-	Miti88. MitiGrisAgga88. MitiBout96.
	Mori, T.	-	-	-	Mori85.
	Morikawa, Hiroyuki	-	-	-	MoriHara91.
	Mullen, R. E. Jr.	-	-	-	LuoMull89.
	Murray, David W.	-	-	-	BuxtBuxtMurr+85a. BuxtBuxtMurr+85b. Murr87. CastMurrScot+88 MurrCastBuxt88. MurrCastBuxt89. Murr90. SincBlakMurr94. BearZissMurr97. BradReidMurr97. TorrMurr97.
	Mutch, Kathleen M.	-	-	-	ThomMutcBerz85
	Mylopoulos, J.	-	-	-	TsotMyloConv+80.
	Nagel, Hans-Hellmut	-	-	-	Nage78. JainNage79 DresNage82. Nage88.
	Nakajima, K.	-	-	-	NakaOsaMaek+97.
	Nakayama, K.	-	-	-	NakaLoom74.
	Nam, Yanghee	-	-	-	NamWohn97.a
	Nandhakumar, N.	-	-	-	AggaNand88.
	Nasrabadi, Nasser M.	-	-	-	NasrClifLiu89.
	Negahdaripour, Shahriar	-	-	-	NegaHorn89. Nega90a. Nega90b. NegaYuShok90. YuNega91. Nega96.
	Nelson, R. C.	-	-	-	NelsAloi89. Nels91.
	Netravali, A. N.	-	-	-	HoltNetr93. HuanNetr94.
	Neumann, B.	-	-	-	Neum84.
	Nielsen, M.	-	-	-	NiesDuncNiel+97.
	Niemann, H.	-	-	-	ScheNiem86.
	Niessen, W. J.	-	-	-	NiesDuncNiel+97.
	Odobez, Jean-Marc	-	-	-	OdobBout95.
	Ohta, N.	-	-	-	OhtaKana95.
	Onural, L.	-	-	-	BozdTekaOnur94a. BozdTekaOnur94b.
	Orphanoudakis, Stelios C.	-	-	-	ArgyTrahOrph98.
	Osa, A.	-	-	-	NakaOsaMaek+97.
	Ostuni, John	-	-	-	OstuDunn96
	Palaniappan, Kannappan	-	-	-	HuanPalaZhua+95
	Pan, J. N.	-	-	-	ShiShuPan94.
	Papadopoulo, Théo	-	-	-	FaugPapa93.p
	Park, EunKwang	-	-	-	ParkWohn98.
	Park, Rae-Hong	-	-	-	ChoPark99.
	Pei, Soo-Chang	-	-	-	PeiLiou94a. PeiLiou94b. PeiLiou94c. PeiLiou97a PeiLiou97b. PeiKoSu98.
	Peleg, Shmuel	91	-	91	IranPele93.ap IranRousPele97.ap
	Penna, M. A.	-	-	-	Penn94.
	Pentland, Alex Paul	-	-	-	AzarStarHoro+93. AzarPent94.
	Ploskas, D.	-	-	-	TzovPlosStri00.A
USA, MA, Cambridge	Poggio, Tomaso	-	-	-	VerrPogg89. AncoPogg95.
	Prazdny, K.	-	-	-	LongPraz80. Praz80. Praz81. Praz83.
	Rangarajan, Krishnan	-	-	-	RangShah92. RangAlleShah93.
	Rauschecker, J. P.	-	-	-	LappRaus93.
	Reddi, S.	-	-	-	Redd89. ReddLoiz96.
	Regan, D.	-	-	-	RegaBeve85.
	Reid, Ian R.	-	-	-	BradReidMurr97.
	Roach, J. W.	-	-	-	RoacAgga80.
	Robert, Luc	-	-	-	FaugRobeLave+98.
	Rothwell, Charlie	-	-	-	SincBlakSmit+93.
	Rousso, Benny	-	-	-	IranRousPele97.ap
	Ryakhin, A. D.	-	-	-	BakuKuznLozi+92.
	Sabata, Bikash	-	-	-	AggaCaiLiao+98.
	Sandini, G.	-	-	-	TistSand93.
	Sanson, H.	-	-	-	DugeSans95.
	Scheuing, A.	-	-	-	ScheNiem86.
	Scott, G. L.	-	-	-	CastMurrScot+88
	Selander, J. M.	-	-	-	JacoChieSela80.
	Shah, Mubarak Ali	84	-	-	RangShah92. RangAlleShah93. TsaiShah94. CédrShah95. ZhanShah97. TianShah99.
	Sharma, R.	-	-	-	SharAloi96.
	Shen, Day-Fann	-	-	-	Shen96.A
	Shi, Y. Q.	-	-	-	ShuShi93. ShiShuPan94.
	Shibata, T.	-	-	-	ShibSugiSugi86.
	Shirai, Yoshiaki	-	-	-	ChenShirAsad93 GuShirAsad95 GuShirAsad96
	Shizawa, M.	-	-	-	ShizMase94.
	Shokrollahi, Amir H.	-	-	-	NegaYuShok90.
	Shu, C. Q.	-	-	-	ShuShi93. ShiShuPan94.
	Simpson, William A.	-	-	-	Simp88.
	Sinclair, D.	-	-	-	SincBlakSmit+93. SincBlakMurr94.
	Sinha, S. S.	-	-	-	WaxmSinh86.
	Smith, Stephen M.	92	-	-	SincBlakSmit+93.
	Snoeren, P. R.	-	-	-	DijkSnoeGiel94.
	Snyder, M. A.	-	-	-	Snyd91.
	Soria, S. M.	-	-	-	DvorKongSori92.
Australia, Canberra	Srinivasan, M. V.	-	-	-	Srin90. Srin94.A
	Starner, T.	-	-	-	AzarStarHoro+93.
	Strickland, R. N.	-	-	-	StriMao94
	Strintzis, Michael G.	-	-	-	GramMalaTzov+95. MalaStri97a. TzovGramStri97a. KompTzovStri98a. TzovKompStri99. TzovPlosStri00.A
	Stuck, Elizabeth R.	-	-	-	ThomLechStuc93
	Su, M. S.	-	-	-	PeiKoSu98.
	Subbarao, Muralidhara	-	-	-	SubbWaxm86. WaxmKamgSubb87 Subb88 Subb89 Subb90.
	Sudhir, G.	-	-	-	SudhBaneBisw+95. SudhLee96.
	Sugie, N.	-	-	-	SugiSugi84. ShibSugiSugi86. KawaSugiSugi89.
	Sugihara, K.	-	-	-	SugiSugi84. ShibSugiSugi86. KawaSugiSugi89.
	Sull, Sanghoon	-	-	-	SullAhuj94.
	Sundareswaran, V.	-	-	-	HummSund93. SundBoutChau96.
	Szelisky, R.	-	-	-	MattSzelKana89.
	Tagawa, N.	-	-	-	TagaToriEndo93. EndoToriTaga94. TagaToriEndo94. TagaToriEndo96.
	te Pas, S. F.	-	-	-	KappTPasKoen+96b. TPasKappKoen97.
	Tekalp, A. Murat	-	-	-	BozdTekaOnur94a. BozdTekaOnur94b.
	ter Haar Romeny, B. M.	-	-	-	NiesDuncNiel+97.
	Terzopoulos, Demetri	79	97	95	TerzWitk88.
	Thompson, William B.	-	-	-	ThomBarn81 ThomMutcBerz85 Thom89. ThomLechStuc93
	Thrift, P.	-	-	-	WohnDaviThri83.
	Tian, Tina Yu	-	-	-	TianShah99.
	Tistarelli, Massimo	-	-	-	TistSand93.
	Tomasi, C.	-	-	-	TomaKana92.
	Toriu, T.	-	-	-	TagaToriEndo93. EndoToriTaga94. TagaToriEndo94. TagaToriEndo96.
	Torr, P. H. S.	-	-	-	TorrMurr97.
	Torre, V.	-	-	-	UrasGiroVerr+89. VerrGiroTorr89 DMichTorrUras93. MichTorrUras93. GiacTorr96.
	Trahanias, Panos E.	-	-	-	ArgyTrahOrph98.
	Tsai, Ping-Sing	-	-	-	TsaiShah94.
	Tsai, R. Y.	-	-	-	TsaiHuan81. TsaiHuanZhu82. TsaiHuan84a. TsaiHuan84b.
Canada, Toronto	Tsotsos, John K.	75	-	-	TsotMyloConv+80. DVitoTsot96.
	Tsuji, Saburo	-	-	-	AsadTsuj83.
	Tsukune, H.	-	-	-	TsukAgga88.
	Tziritas, G.	-	-	-	Tzir89.
	Tzovaras, Dimitrios	-	-	-	GramMalaTzov+95. TzovGramStri97a. KompTzovStri98a. TzovKompStri99. TzovPlosStri00.A
	Ullman, Shimon	-	-	-	MarrUllm81. Ullm81. WaxmUllm85. Ullm86.
	Uras, S.	-	-	-	UrasGiroVerr+89. DMichTorrUras93. MichTorrUras93.
	Vaidya, V. G.	-	-	-	HaraJooLee+89.
	van Doorn, A. J	-	-	-	KoenVDoor75. KoenVDoor87. KoenVDoor91. KoenVDoor92. KappVDoorKoen94. KappTPasKoen+96b.
	Verri, Alessandro	84	-	-	UrasGiroVerr+89. VerrGiroTorr89 VerrPogg89. VerrAica90. CampVerr92
	Viergever, M. A.	-	-	-	NiesDuncNiel+97.
	Wang, Wendong J.	-	-	-	WangDunc96.
USA, MA, Lexington	Waxman, Allen M.	-	-	-	WaxmUllm85. WaxmWohn85. SubbWaxm86. WaxmSinh86. WaxmKamgSubb87 WohnWaxm90
	Webb, J. A.	-	-	-	WebbAgga81. WebbAgga82.
USA, CA, Pasadena	Weber, Joseph	93	-	94	WebeMali97
	Wechsler, Harry	-	-	-	JacoWech82.
	Weldon, E. J. Jr.	-	-	-	HornWeld88
	Wells III, William M.	-	-	-	Well89.
	Weng, J.	-	-	-	WengHuanAhuj87. WengHuanAhuj92. WengAhujHuan93.
	Williams, N. S.	-	-	-	BuxtBuxtMurr+85a. BuxtBuxtMurr+85b.
	Witkin, A.	-	-	-	TerzWitk88.
	Wohn, KwangYun	83	96	-	WohnDaviThri83. WaxmWohn85. WohnWaxm90 IuWohn91. WuWohn91. JungWohn97a. JungWohn97b. NamWohn97.a JungWohn98. ParkWohn98.
	Wu, Jian	-	-	-	WuWohn91.
	Wu, S. F.	-	-	-	WuKitt93.
	Wu, T. H.	-	-	-	WuChel95.
	Yen, B. L.	-	-	-	YenHuan83.
	Young, G. S.	-	-	-	YounChel90. YounChel92.
	Yu, Chih Ho	-	-	-	NegaYuShok90. YuNega91.
	Zeller, Cyril	-	-	-	CsurZellZhan+97. FaugRobeLave+98.
	Zhang, Ruo	-	-	-	ZhanShah97.
	Zhang, Zhengyou	91	91	92	ZhanFaug91.a ZhanFaug92aa ZhanFaug94.a Zhan95a.ap Zhan95b.ap ZhanLuonFaug96.ap CsurZellZhan+97. Zhan97b.
	Zheng, Y.	-	-	-	ZhenBillMayh+96
	Zhu, W. L.	-	-	-	TsaiHuanZhu82.
	Zhuang, Xinhua	-	-	-	HaraZhua86. ZhuaHuanHara86. ZhuaHuanAhuj+88. HaraJooLee+89. HuanPalaZhua+95
	Zisserman, A. P.	-	-	-	BearZissMurr97.
	Zoghlami, Imad	-	-	-	FaugRobeLave+98.
	Zucker, Steven W.	-	-	-	TsotMyloConv+80.

Year Index

1973	Joha73.
1974	NakaLoom74.
1975	AggaDuda75. KoenVDoor75.
:
1977	ChowAgga77.
1978	MartAgga78. Nage78.
1979	JainNage79 MartAgga79
1980	Cloc80. HadaIshaGur80. JacoChieSela80. Lee80. LongPraz80. Meir80. Praz80. RoacAgga80. TsotMyloConv+80.
1981	FlinChan81. Jain81b Long81. MarrUllm81. Praz81. ThomBarn81 TsaiHuan81. Ullm81. WebbAgga81.
1982	DresNage82. JacoWech82. TsaiHuanZhu82. WebbAgga82.
1983	AsadTsuj83. BallKimb83 BrusHorn83. BuxtBuxt83a. Jain83. JayaJain83. Praz83. WohnDaviThri83. YenHuan83.
1984	FangHuan84. Jain84b JeriJain84 Kana84. Long84. Neum84. SugiSugi84. TsaiHuan84a. TsaiHuan84b.
1985	Adiv85. BuxtBuxtMurr+85a. BuxtBuxtMurr+85b. Kana85b. Mori85. RegaBeve85. ThomMutcBerz85 WaxmUllm85. WaxmWohn85.
1986	BroiChel86 HaraZhua86. Kana86. Mayb86a. Mayb86b. ScheNiem86. ShibSugiSugi86. SubbWaxm86. Ullm86. WaxmSinh86. ZhuaHuanHara86.
1987	BollBakeMari87. Horn87 Kana87. KimAgga87. KoenVDoor87. Murr87. WaxmKamgSubb87 WengHuanAhuj87.
1988	AggaNand88. Berg88. CastMurrScot+88 HornWeld88 Kana88. LiuHuan88. Miti88. MitiGrisAgga88. MurrCastBuxt88. Nage88. Simp88. Subb88 TerzWitk88. TsukAgga88. ZhuaHuanAhuj+88.
1989	Adiv89. BroiChel89. HaraJooLee+89. HuanLee89. KawaSugiSugi89. LuoMull89. MattSzelKana89. MurrCastBuxt89. NasrClifLiu89. NegaHorn89. NelsAloi89. Redd89. Subb89 Thom89. Tzir89. UrasGiroVerr+89. VerrGiroTorr89 VerrPogg89. Well89.
1990	ChenHuan90 FranBout90. KagoMiik90. Murr90. Nega90a. Nega90b. NegaYuShok90. Srin90. Subb90. VerrAica90. WohnWaxm90 YounChel90.
1991	BergCarl91. Enke91. IuWohn91. KoenVDoor91. MallBultLitt+91. Mase91. MoriHara91. Nels91. Snyd91. WuWohn91. YuNega91. ZhanFaug91.a
1992	BakuKuznLozi+92. Barn92a. Barn92b. CampVerr92 DvorKongSori92. HeegJeps92. KoenVDoor92. RangShah92. TomaKana92. WengHuanAhuj92. YounChel92. ZhanFaug92aa
1993	AzarStarHoro+93. Beus93. BoutLala93. CappMecoDBimb93 ChenShirAsad93 DMichTorrUras93. FaugPapa93.p HoltNetr93. HummSund93. IranPele93.ap Kana93. Koch93. LappRaus93. LiuHuan93. MichTorrUras93. RangAlleShah93. ShuShi93. SincBlakSmit+93. TagaToriEndo93. ThomLechStuc93 TistSand93. WengAhujHuan93. WuKitt93.
1994	AzarPent94. BarrLipt94. BozdTekaOnur94a. BozdTekaOnur94b. DijkSnoeGiel94. EndoToriTaga94. GohMart94. HuanNetr94. KappVDoorKoen94. Meye94. PeiLiou94a. PeiLiou94b. PeiLiou94c. Penn94. ShiShuPan94. ShizMase94. SincBlakMurr94. Srin94.A StriMao94 SullAhuj94. TagaToriEndo94. TsaiShah94. ZhanFaug94.a
1995	AncoPogg95. CédrShah95. DugeSans95. GramMalaTzov+95. GuShirAsad95 GuptKana95. Heik95. HuanPalaZhua+95 KellKais95. OdobBout95. OhtaKana95. SudhBaneBisw+95. WuChel95. Zhan95a.ap Zhan95b.ap
1996	ChauBoukBout+96. DVitoTsot96. EarnBlos96. GiacTorr96. GuShirAsad96 KappTPasKoen+96b. MitiBout96. Nega96. OstuDunn96 ReddLoiz96. SharAloi96. Shen96.A SudhLee96. SundBoutChau96. TagaToriEndo96. WangDunc96. ZhanLuonFaug96.ap ZhenBillMayh+96
1997	BearZissMurr97. BradReidMurr97. BrooChojBaum97. ChihCaim97. CsurZellZhan+97. IranRousPele97.ap JungWohn97a. JungWohn97b. LuonFaug97.p MalaStri97a. MeesHarr97. NakaOsaMaek+97. NamWohn97.a NiesDuncNiel+97. PeiLiou97a PeiLiou97b. TPasKappKoen97. TorrMurr97. TzovGramStri97a. WebeMali97 Zhan97b. ZhanShah97.
1998	AggaCaiLiao+98. ArgyTrahOrph98. CameGrosGuen98. EarnBlos98. FaugRobeLave+98. JungWohn98. KompTzovStri98a. ParkWohn98. PeiKoSu98.
1999	ChoPark99. TianShah99. TzovKompStri99.
2000	TzovPlosStri00.A
:

Journal Index

The numbers in the columns `R', `A', and `P' indicate the year from which on you can expect to find online references, abstracts, and papers, respectively. A '?' indicates documents, that may be accessible only to subscribers.

60 journals, 35 (58%) with homepage.

Publisher	Journal	R	A	P	Reference Keys
Elsevier	Artif. Intell.	70	70?	96?	FlinChan81. WebbAgga82. Kana84. GuptKana95.
IOP	Bioimaging	93	?	?	BarrLipt94.
Springer	Biol. Cybern.	94	94	96?	Praz80. Mori85. KoenVDoor87. Thom89. UrasGiroVerr+89. Srin90. VerrAica90. MallBultLitt+91. Beus93. Srin94.A
IEEE Can.	Canadian J. Electric. & Comp. Eng.	95	-	-	EarnBlos98.
IEEE Comp.	Comp.	88	88	88?	Jain81b ThomBarn81 WebbAgga81.
Elsevier	Comp. & Graph.	-	-	-	Neum84.
	Comp. Graph. & Im. Process.	-	-	-	MartAgga78. Nage78.
Blackwell	Comp. Graph. Forum	-	-	-	Koch93.
Elsevier	Comp. Phys. Comm.	98	98?	98?	BuxtBuxtMurr+85b.
Acad. Pr.	Comp. Vis. & Im. Underst.	96	96	96?	DVitoTsot96. Nega96. WangDunc96. CsurZellZhan+97. MalaStri97a. NiesDuncNiel+97. AggaCaiLiao+98.
	Comp. Vis., Graph. & Im. Process.	-	-	-	Praz81. DresNage82. AsadTsuj83. BallKimb83 BrusHorn83. JayaJain83. Praz83. YenHuan83. SugiSugi84. Kana85b. HaraZhua86. Kana86. SubbWaxm86. Kana87. LiuHuan88. Miti88. TsukAgga88. ZhuaHuanAhuj+88. NegaHorn89. Subb90. WohnWaxm90 WuWohn91.
	Comp. Vis., Graph. & Im. Process.: ...	-	-	-	BergCarl91. CampVerr92 GohMart94. Penn94. StriMao94 ZhanFaug94.a FaugRobeLave+98.
IEE	Electron. Lett.	-	-	-	ZhenBillMayh+96 ParkWohn98.
	GEC J. Res.	93	93	-	BuxtBuxtMurr+85a.
IEE	IEE Proc. Vis., Im. & Signal Process.	?	?	?	JungWohn97a.
IEEE	IEEE J. Oceanic Eng.	-	-	-	NegaYuShok90.
IEEE	IEEE T. Acoust. Speech & Signal Process.	-	-	-	TsaiHuan81. TsaiHuanZhu82. TsaiHuan84b.
IEEE	IEEE T. Aerospace & Electron. Sys.	-	-	-	Barn92a. Barn92b.
IEEE	IEEE T. Circ. & Sys. for Video Techn.	98	-	-	BozdTekaOnur94a. PeiKoSu98. TzovPlosStri00.A
IEEE	IEEE T. Comp.	95	95	95?	AggaDuda75. ChowAgga77. Ullm81.
IEEE	IEEE T. Comp. Graph. & Appl.	-	-	-	TerzWitk88.
IEEE	IEEE T. Im. Process.	98	-	-	BozdTekaOnur94b. PeiLiou97a
IEEE	IEEE T. Patt. Anal. & Mach. Intell.	95	95	95?	JainNage79 JacoChieSela80. Meir80. RoacAgga80. TsotMyloConv+80. Jain83. FangHuan84. JeriJain84 TsaiHuan84a. Adiv85. ThomMutcBerz85 BroiChel86 WaxmSinh86. WengHuanAhuj87. Kana88. MitiGrisAgga88. Adiv89. HuanLee89. NelsAloi89. Subb89 VerrPogg89. ChenHuan90 Nega90b. YounChel90. Snyd91. RangShah92. WengHuanAhuj92. YounChel92. AzarStarHoro+93. DMichTorrUras93. HummSund93. LiuHuan93. MichTorrUras93. ThomLechStuc93 TistSand93. WengAhujHuan93. AzarPent94. SullAhuj94. HuanPalaZhua+95 Zhan95a.ap Zhan95b.ap ChauBoukBout+96. EarnBlos96. GuShirAsad96 OstuDunn96 BradReidMurr97. IranRousPele97.ap WebeMali97 TianShah99.
IEEE	IEEE T. Robot. & Automation	98	?	?	KimAgga87. Well89. Meye94. ZhanLuonFaug96.ap
IEEE	IEEE T. Sys., Man & Cybern.	-	-	-	HaraJooLee+89. SharAloi96.
IEICE	IEICE T. Comm. (B)	-	-	-	Mase91.
IEICE	IEICE T. Inf. & Sys. (D)	-	-	-	ChenShirAsad93 TagaToriEndo93. EndoToriTaga94. TagaToriEndo94. GuShirAsad95 OhtaKana95. TagaToriEndo96.
Elsevier	Im. & Vis. Comp.	-	-	-	Jain84b Mayb86b. Murr87. CastMurrScot+88 MurrCastBuxt88. Nage88. Murr90. Enke91. ZhanFaug91.a SincBlakSmit+93. PeiLiou94b. CédrShah95. ZhanShah97.
	Im. Vis. Comput. J.	-	-	-	FranBout90.
	Int'l J. Comp. Math.	-	-	-	Redd89.
Kluwer	Int'l J. Comp. Vis.	95	?	?	BollBakeMari87. Horn87 WaxmKamgSubb87 Berg88. HornWeld88 Subb88 MattSzelKana89. MurrCastBuxt89. Nels91. HeegJeps92. TomaKana92. ZhanFaug92aa FaugPapa93.p Kana93. SincBlakMurr94. AncoPogg95. WuChel95. GiacTorr96. MitiBout96. BearZissMurr97. LuonFaug97.p TorrMurr97.
	Int'l J. Im. Sys. & Techn.	-	-	-	ReddLoiz96.
	Int'l J. Robot. Res.	-	-	-	WaxmUllm85. WaxmWohn85. SundBoutChau96.
	J. Circ., Sys. & Comp.	-	-	-	CappMecoDBimb93
	J. Comp. Sci. & Techn.	-	-	-	ChihCaim97.
	J. Inf. Sci. & Eng.	85	85	98	Shen96.A
Kluwer	J. Math. Im. & Vis.	95	?	?	DvorKongSori92.
	J. Optical Soc. America	-	-	-	HadaIshaGur80. BroiChel89.
OSA	J. Optical Soc. America A	95	-	95?	RegaBeve85. ZhuaHuanHara86. NasrClifLiu89. VerrGiroTorr89 Nega90a. KoenVDoor91. YuNega91. KoenVDoor92. DijkSnoeGiel94. KappVDoorKoen94. KellKais95. SudhBaneBisw+95. KappTPasKoen+96b. BrooChojBaum97. TPasKappKoen97. Zhan97b.
Wiley	J. Robotic Sys.	96?	?	?	LuoMull89.
Acad. Pr.	J. Vis. Comm. & Im. Representation	-	-	-	MoriHara91. HoltNetr93. IranPele93.ap WuKitt93. OdobBout95. SudhLee96. ChoPark99.
	Japanese J. Appl. Phys., Part 1	94	94	?	NakaOsaMaek+97.
Nature	Nature	?	?	?	Long81.
MIT	Neur. Comp.	95	95	99?	LappRaus93. CameGrosGuen98.
T&F	Optica Acta	-	-	-	KoenVDoor75.
SPIE	Optical Eng.	97	97	97?	BoutLala93. TzovGramStri97a.
	Optoelectronics, Instrumentation & Data Process.	-	-	-	BakuKuznLozi+92.
Elsevier	Patt. Recogn.	97	97?	97?	MartAgga79 WohnDaviThri83. IuWohn91. RangAlleShah93. ShuShi93. PeiLiou94a. PeiLiou94c. ShiShuPan94. TsaiShah94. PeiLiou97b.
Elsevier	Patt. Recogn. Lett.	-	-	-	JacoWech82. Mayb86a. ScheNiem86. Heik95. NamWohn97.a JungWohn98.
	Perc.	96	99	00?	NakaLoom74. Cloc80. Simp88.
PSP	Perc. & Psychophys.	?	-	-	Joha73.
Roy. Soc.	Phil. T. Roy. Soc. Lond. B	-	-	-	Lee80.
IEEE	Proc. IEEE	98	-	-	AggaNand88. HuanNetr94.
Roy. Soc.	Proc. Roy. Soc. Lond. B	97	98	98?	LongPraz80. MarrUllm81. BuxtBuxt83a. Long84.
Acad. Pr.	Real-Time Im.	96	96	96?	JungWohn97b. ArgyTrahOrph98.
Elsevier	Signal Process.	94	94?	96?	Tzir89.
Elsevier	Signal Process.: ...	-	-	-	DugeSans95. GramMalaTzov+95. KompTzovStri98a. TzovKompStri99.
VSP	Spatial Vis.	85	-	-	Ullm86.
Wiley	Sys. & Comp. Jap.	?	?	?	ShibSugiSugi86. KawaSugiSugi89. KagoMiik90. ShizMase94.
Elsevier	Vis. Res.	95	-	-	MeesHarr97.

Thu Aug 24 17:42:56 2006, Laurenz Wiskott, http://itb.biologie.hu-berlin.de/~wiskott/