1989
DOI: 10.1109/70.88100
|View full text |Cite
|
Sign up to set email alerts
|

Stereo vision and navigation in buildings for mobile robots

Abstract: Abstmct-A mobile robot that autonomously functions in a complex and previously unknown indoor environment has been developed. The omnidirectional mobile robot uses stereo vision, odometry, and contact bumpers to instantiate a symbolic world model. Finding stereo correspondences across a single epipolar line is adequate for instantiating the model. Uncertainty in sensor data is represented by a multivariate normal distribution, and uncertainty models for motion and stereo are presented; uncertainty is reduced b… Show more

Help me understand this report

Search citation statements

Order By: Relevance

Paper Sections

Select...
2
1
1
1

Citation Types

0
76
0
2

Year Published

1999
1999
2013
2013

Publication Types

Select...
7
2
1

Relationship

0
10

Authors

Journals

citations
Cited by 247 publications
(78 citation statements)
references
References 16 publications
(1 reference statement)
0
76
0
2
Order By: Relevance
“…When this expectation view is reconciled with the camera perception, the result is a more precise fix on the location of the robot. Examples of such systems are [100] by Matthies and Shafer, where stereo vision was used for error reduction; a system by Christensen et al [24], where stereo vision was used in conjunction with a CAD model representation of the space; the PSEIKI system described in [1], [69] which used evidential reasoning for image interpretation; the system presented by Tsubouchi and Yuta [147] that used color images and CAD models; the FINALE system of Kosaka and Kak [75], and Kosaka et al [76] that used a geometric model and prediction of uncertainties in the Hough space and its extended version [116], [117] which incorporated vision-based obstacle avoidance for stationary objects; the system of Kriegman et al [79] that used stereo vision for both navigation and map-building; the NEURO-NAV system of Meng and Kak [102], [103] that used a topological representation of space and neural networks to extract features and detect landmarks; the FUZZY-NAV system of Pan et al [121] that extended NEURO-NAV by incorporating fuzzy logic in a high-level rule-based controller for controlling navigation behavior of the robot; the system of [165], in which landmarks were exit signs, air intakes and loudspeakers on the ceiling and that used a template matching approach to recognize the landmarks; the system of Horn and Schmidt [53], [54] that describes the localization system of the mobile robot MACROBE-Mobile and Autonomous Computer-Controlled Robot Experiment-using a 3D-laser-range-camera, etc.…”
Section: Map-based Approachesmentioning
confidence: 99%
“…When this expectation view is reconciled with the camera perception, the result is a more precise fix on the location of the robot. Examples of such systems are [100] by Matthies and Shafer, where stereo vision was used for error reduction; a system by Christensen et al [24], where stereo vision was used in conjunction with a CAD model representation of the space; the PSEIKI system described in [1], [69] which used evidential reasoning for image interpretation; the system presented by Tsubouchi and Yuta [147] that used color images and CAD models; the FINALE system of Kosaka and Kak [75], and Kosaka et al [76] that used a geometric model and prediction of uncertainties in the Hough space and its extended version [116], [117] which incorporated vision-based obstacle avoidance for stationary objects; the system of Kriegman et al [79] that used stereo vision for both navigation and map-building; the NEURO-NAV system of Meng and Kak [102], [103] that used a topological representation of space and neural networks to extract features and detect landmarks; the FUZZY-NAV system of Pan et al [121] that extended NEURO-NAV by incorporating fuzzy logic in a high-level rule-based controller for controlling navigation behavior of the robot; the system of [165], in which landmarks were exit signs, air intakes and loudspeakers on the ceiling and that used a template matching approach to recognize the landmarks; the system of Horn and Schmidt [53], [54] that describes the localization system of the mobile robot MACROBE-Mobile and Autonomous Computer-Controlled Robot Experiment-using a 3D-laser-range-camera, etc.…”
Section: Map-based Approachesmentioning
confidence: 99%
“…Stereo vision has been used for mobile robot navigation using stereo correspondence and Kalman filtering [14]. Stephen Se et al proposed vision based simultaneous localization and mapping by tracking SIFT (Scale Invariant Feature Transform) features [15].…”
Section: Previous Workmentioning
confidence: 99%
“…], where a similar problem was considered, but explicit solutions were not possible. Regarding the reconstruction aspect of our work, there is work in the eighties -early nineties on reconstructionb using vertical edges and known motion (Kriegman [5], Kak [4]). There is work in structure from motion from circular trajectories (Shariat and Price [9], Sawhney [8]).…”
Section: Related Workmentioning
confidence: 99%