Hardas, D.M., and
Srihari, S.N.,
Progressive Refinement of 3-D Images Using Coded Binary Trees:
Algorithms and Architecture,
PAMI(6), No. 6, November 1984, pp. 748-757.
BibRef
8411
Yau, M.M.,
Generating Quadtrees of Cross Sections from Octrees,
CVGIP(27), No. 2, August 1984, pp. 211-238.
WWW Version.
BibRef
8408
Goldwasser, S.M.,
Reynolds, R.A.,
Real-Time Display And Manipulation Of 3-D Medical Objects: The Voxel Processor Architecture,
CVGIP( 39), No. 1, July 1987, pp. 1-27.
WWW Version.
BibRef
8707
Chien, C.H., and
Aggarwal, J.K.,
Model Construction and Shape Recognition from Occluding Contours,
PAMI(11), No. 4, April 1989, pp. 372-389.
IEEE Abstract. IEEE Top Reference.
WWW Version.
BibRef
8904
Earlier:
Reconstruction and Recognition of 3-D Objects from
Occluding Contours and Silhouettes,
Univ. of Texas-TR-87-5-37.
BibRef
Earlier:
Shape Recognition from Single Silhouettes,
ICCV87(481-490).
Recognize Two-Dimensional Objects. This is a recognition of the 3-D object from feature points
on the 2-D silhouette. First a hypothesis is generated for
the match, then it is confirmed by using constraints imposed
by the view point implied by the proposed match. 2D
representation is by quadtrees and 3-D by Octrees.
BibRef
Chien, C.H., and
Aggarwal, J.K.,
Identification of 3D Objects from Multiple Silhouettes
Using Quadtrees/Octrees,
CVGIP(36), No. 2/3, November/December 1986, pp. 256-273.
WWW Version.
BibRef
8611
Chien, C.H., and
Aggarwal, J.K.,
Volume/Surface Octrees for the Representation of
Three-Dimensional Objects,
CVGIP(36), No. 1, October 1986, pp. 100-113.
WWW Version.
BibRef
8610
Earlier:
Computation of Volume/Surface Octrees from
Contours and Silhouettes of Multiple Views,
CVPR86(250-255).
BibRef
Earlier:
A Volume/Surface Octree Representation,
ICPR84(817-820).
BibRef
Earlier:
Reconstruction and Matching of 3-D Objects using Quadtrees/Octrees,
CVWS85(49-54).
Volumetric representation. Quadtree of different views is mapped into
an octree. These are combined to get the full description.
For quadtrees:
See also Normalized Quadtree Representation, A.
BibRef
Chien, C.H.,
Sim, Y.B., and
Aggarwal, J.K.,
Generation of Volume/Surface Octree from Range Data,
CVPR88(254-260).
IEEE Abstract. IEEE Top Reference. Combining several views in the octree representation (from range data).
BibRef
8800
Kim, Y.C., and
Aggarwal, J.K.,
Rectangular Parallelepiped Coding:
A Volumetric Representation of Three-Dimensional Objects,
RA(2), No. 3, Sept 1986, pp. 127-134.
See also Positioning Three-Dimensional Objects Using Stereo Images.
BibRef
8600
Kim, Y.C., and
Aggarwal, J.K.,
Rectangular Parallelepiped Coding for Solid Modeling,
RA(1), No. 3, 1986, pp. 77-85.
An extended version of the oct-tree concept.
BibRef
8600
Kim, Y.C., and
Aggarwal, J.K.,
Rectangular Coding for Binary Images,
CVPR83(108-113).
BibRef
8300
Raviv, D.,
Pao, Y.H., and
Loparo, K.A.,
Reconstruction of Three-Dimensional Surfaces from Two-Dimensional
Binary Images,
RA(5), No. 5, October 1989, pp. 701-710.
(May be in the wrong place.)
BibRef
8905
Noborio, H.,
Fukuda, S., and
Arimoto, S.,
Construction of the Octree Approximating Three-Dimensional Objects by
Using Multiple Views,
PAMI(10), No. 6, November 1988, pp. 769-782.
IEEE Abstract. IEEE Top Reference.
WWW Version.
BibRef
8811
Earlier:
A Fast Algorithm for Building the Octree for a Three-Dimensional Object
from Its Multiple Images,
ICPR88(II: 860-862).
IEEE DOI may work or IEEE-CS DOI may work.
IEEE Top Reference. Uses a polyhedral cone generated from views of the object. Basic.
BibRef
Brunet, P.,
Navazo, I.,
Solid Representation and Operation Using Extended Octrees,
TOG(9), 1990, pp. 170-197.
BibRef
9000
Srivastava, S.K., and
Ahuja, N.,
Octree Generation from Object Silhouettes in Perspective Views,
CVGIP(49), No. 1, January 1990, pp. 68-84.
WWW Version.
BibRef
9001
Ahuja, N., and
Veenstra, J.,
Generating Octrees from Object Silhouettes in Orthographic Views,
PAMI(11), No. 2, February 1989, pp. 137-149.
IEEE Abstract. IEEE Top Reference.
WWW Version.
BibRef
8902
Earlier: A2, A1:
Efficient Octree Generation from Silhouettes,
CVPR86(537-542).
Viewing is from 13 standard views (3 faces, 6 edges, 4 corners),
these provide a direct mapping from the view to the octree. Find
the intersection of the octree space with the given image.
BibRef
Veenstra, J.,
Ahuja, N.,
Line Drawings of Octree-Represented Objects,
TOG(7), 1988, pp. 61-75.
BibRef
8800
Ahuja, N.,
Nash, C.,
Octree Representations of Moving Objects,
CVGIP(26), No. 2, May 1984, pp. 207-216.
WWW Version.
BibRef
8405
Earlier: A2, A1:
CVPR83(380-381).
BibRef
Oase, W.M.,
Ahuja, N.,
Efficient Octree Representation of Moving Objects,
ICPR84(821-823).
BibRef
8400
Weng, J.Y.[Ju-Yang], and
Ahuja, N.[Narendra],
Octree Representation of Objects in Arbitrary Motion:
Representation and Efficiency,
CVGIP(39), No. 2, August 1987, pp. 167-185.
WWW Version.
BibRef
8708
Earlier:
CVPR85(524-529).
Representation problem, incremental changes in the octree.
BibRef
Potmesil, M.[Michael],
Generating Octree Models of 3D
Objects from Their Silhouettes in a Sequence of Images,
CVGIP(40), No. 1, October 1987, pp. 1-29.
WWW Version.
BibRef
8710
Earlier:
Generating Models of Solid Objects by Matching 3D Surface Segments,
IJCAI83(1089-1093).
BibRef
And:
Generating Three-Dimensional Surface Models of Solid Objects from
Multiple Projections,
Ph.D.Thesis, 1982,
BibRef
RPI-IPL-TR-033.
(Spatial matching of segments of an object to
generate the complete 3D representation.) The series of 3-D conic volumes
determined by the silhouette are intersected using octrees for the
representation method.
See also Generation of 3D Surface Descriptions from Images of Pattern Illuminated Objects.
BibRef
Bai, Z.D.,
Krishnaiah, P.R.,
Rao, C.R.,
Reddy, P.S.,
Sun, Y.N., and
Zhao, L.C.,
Reconstruction of the Left
Ventricle from Two Orthogonal Projections,
CVGIP(47), No. 2, August 1989, pp. 165-188.
WWW Version.
BibRef
8908
Lavakusha,
Pujari, A.K., and
Reddy, P.G.,
Linear Octrees by Volume Intersection,
CVGIP(45), No. 3, March 1989, pp. 371-379.
WWW Version. Intersection of 3 orthogonal silhouettes.
BibRef
8903
Ibaroudene, D.,
Demjanenko, V.,
Acharya, R.S.,
Adjacency Algorithms for Linear Octree Nodes,
IVC(8), No. 2, May 1990, pp. 115-123.
WWW Version.
BibRef
9005
Minovic, P.,
Ishikawa, S., and
Kato, K.,
Symmetry Identification of a 3-D Object Represented by Octree,
PAMI(15), No. 5, May 1993, pp. 507-514.
IEEE Abstract. IEEE Top Reference.
WWW Version.
BibRef
9305
Szeliski, R.S.[Richard S.],
Rapid Octree Construction from Image Sequences,
CVGIP(58), No. 1, July 1993, pp. 23-32.
WWW Version.
BibRef
9307
Earlier:
Real-Time Octree Generation from Rotating Objects,
DEC-CRL-90-12, December 1990.
HTML Version.
BibRef
Szeliski, R.S.,
Shape From Rotation,
CVPR91(625-631).
IEEE Abstract. IEEE Top Reference.
BibRef
9100
And:
DEC-CRL-90-13, December 1990.
HTML Version. Given OF and a rotating object determine shape. This is related to
the slider stereo work.
BibRef
Shu, R.B.,
Kankanhalli, M.S.,
Efficient Linear Octree Generation from Voxels,
IVC(12), No. 5, June 1994, pp. 297-303.
WWW Version.
BibRef
9406
Bauer, M.A.,
Feeney, S.T.,
Gargantini, I.,
Parallel 3-D Filling with Octrees,
PDC(22), No. 1, 1994, pp. 121-128.
Fill using the boundary.
BibRef
9400
Whang, K.Y.,
Song, J.W.,
Chang, J.W.,
Kim, J.Y.,
Cho, W.S.,
Park, C.M.,
Song, I.Y.,
Octree-R: An Adaptive Octree for Efficient Ray-Tracing,
VCG(1), No. 4, December 1995, pp. 343-349.
BibRef
9512
Nitya, V.B.,
Sridevi, N.,
Pujari, A.K.,
Linear Octree by Volume Intersection Using Perspective Silhouettes,
PRL(13), 1992, pp. 781-788.
BibRef
9200
Pai, A.G.,
Usha, H.,
Pujari, A.K.,
Linear Octree of a 3D Object from 2D Silhouettes Using Segment Tree,
PRL(11), 1990, pp. 619-623.
BibRef
9000
Vörös, J.,
A strategy for repetitive neighbor finding in octree representations,
IVC(18), No. 14, November 2000, pp. 1085-1091.
WWW Version.
0101
BibRef
Cointepas, Y.[Yann],
Bloch, I.[Isabelle],
Garnero, L.[Line],
A cellular model for multi-objects multi-dimensional homotopic
deformations,
PR(34), No. 9, September 2001, pp. 1785-1798.
WWW Version.
0108
BibRef
Earlier:
Joined segmentation of cortical surface and brain volume in MRI using a
homotopic deformable cellular model,
3DIM99(240-248).
IEEE DOI may work or IEEE-CS DOI may work.
9910
BibRef
Lim, S.H.[Suk-Hyun],
Shin, B.S.[Byeong-Seok],
A distance template for octree traversal in CPU-based volume ray
casting,
VC(24), No. 4, April 2008, pp. xx-yy.
WWW Version.
0804
BibRef
Lee, P.F.[Pai-Feng],
Chiang, C.H.[Chien-Hsing],
Tseng, J.L.[Juin-Ling],
Jong, B.S.[Bin-Shyan],
Lin, T.W.[Tsong-Wuu],
Octree Subdivision Using Coplanar Criterion for Hierarchical Point
Simplification,
PSIVT06(54-63).
WWW Version.
0612
BibRef
Samet, H.,
Kochut, A.,
Octree approximation and compression methods,
3DPVT02(460-469).
0206
BibRef
Cano, P.,
Torres, J.C.,
Representation of Polyhedral Objects Using SP-Octrees,
WSCG02(95).
PDF Version.
HTML Version.
0209
BibRef
Velasco, F.,
Torres, J.C.,
Cells Octree: A New Data Structure for Volume Modeling and
Visualization,
VMV01(xx-yy).
PDF Version.
0209
BibRef
Cheung, G.K.M.[German K. M.],
Kanade, T.[Takeo],
Bouguet, J.Y.[Jean-Yves],
Holler, M.[Mark],
A Real Time System for Robust 3D Voxel Reconstruction of Human Motions,
CVPR00(II: 714-720).
IEEE Abstract. IEEE Top Reference.
WWW Version.
PDF Version.
HTML Version.
0005
BibRef
Sojan Lal, P.,
Unnikrishnan, A.,
Poulose Jacob, K.,
Parallel implementation of octtree generation algorithm,
ICIP98(III: 1005-1009).
IEEE DOI may work or IEEE-CS DOI may work.
9810
BibRef
Kitamura, Y.,
Kishino, F.,
A Parallel Algorithm for Octree Generation from
Polyhedral Shape Representation,
ICPR96(IV: 303-309).
IEEE DOI may work or IEEE-CS DOI may work.
9608(ATR Communication Systems, J)
BibRef
Mori, T.,
Suzuki, S.,
Horikoshi, T., and
Yasuno, T.,
Multi-Scale Structure from Multi-Views by d{2}G Filtered 3D Voting,
CVPR93(662-663).
IEEE Abstract. IEEE Top Reference.
BibRef
9300
Connolly, C.I.,
Cumulative Generation of Octree Models from Range Data,
Conf. on RoboticsAtlanta, March 1984, pp. 25-32.
BibRef
8403
Chapter on 3-D Object Description and Computation Techniques, Surfaces, Deformable, View Generation, Video Conferencing continues in
Occupancy Grids, Voxels .