Terrain perception is essential for navigation planning in rough terrain. In this paper, we propose to generate robot-centered 2D drivability maps from eight RGB-D sensors measuring the 3D geometry of the terrain 360 ◦ around the robot. From a 2.5D egocentric height map, we assess drivability based on local height differences on multiple scales. The maps are then used for local navigation planning and precise trajectory rollouts. We evaluated our approach during the DLR SpaceBot Cup competition, where our robot successfully navigated through a challenging arena, and in systematic lab experiments.
We present a randomised potential-field based motion planning approach for rough-terrain mobile robo...
Intelligent terrain perception for search-and-rescue robotic applications, requires a high-level und...
This paper addresses the issues of unstructured terrain modeling for the purpose of navigation with ...
Three-dimensional laser range finders provide au-tonomous systems with vast amounts of information. ...
This research aims to address the issue of safe navigation for autonomous vehicles in highly challen...
Robotic technologies will continue to enter new applications in addition to automated manufacturing ...
Autonomous 3D rough terrain navigation requires a mobile robot to maneuver cluttered environments th...
To perform planetary exploration without human supervision, a complete autonomous rover must be able...
Mobile robots, such as vacuum cleaning robots and robotic lawn mowers, have become part of our daily...
Accurate and complete terrain maps enhance the awareness of autonomous robots and enable safe and op...
To autonomously navigate on rough terrain is a challenging problem for mobile robots, requiring the ...
Robotic ground vehicles for outdoor applications have achieved some remarkable successes, notably in...
Despite the progress in legged robotic locomotion, autonomous navigation in unknown environments rem...
Autonomous navigation by a mobile robot through L natural, unstructured terrain is one of the premie...
Abstract With the development of biped robots, systems became able to navigate in a 3 dimensional w...
We present a randomised potential-field based motion planning approach for rough-terrain mobile robo...
Intelligent terrain perception for search-and-rescue robotic applications, requires a high-level und...
This paper addresses the issues of unstructured terrain modeling for the purpose of navigation with ...
Three-dimensional laser range finders provide au-tonomous systems with vast amounts of information. ...
This research aims to address the issue of safe navigation for autonomous vehicles in highly challen...
Robotic technologies will continue to enter new applications in addition to automated manufacturing ...
Autonomous 3D rough terrain navigation requires a mobile robot to maneuver cluttered environments th...
To perform planetary exploration without human supervision, a complete autonomous rover must be able...
Mobile robots, such as vacuum cleaning robots and robotic lawn mowers, have become part of our daily...
Accurate and complete terrain maps enhance the awareness of autonomous robots and enable safe and op...
To autonomously navigate on rough terrain is a challenging problem for mobile robots, requiring the ...
Robotic ground vehicles for outdoor applications have achieved some remarkable successes, notably in...
Despite the progress in legged robotic locomotion, autonomous navigation in unknown environments rem...
Autonomous navigation by a mobile robot through L natural, unstructured terrain is one of the premie...
Abstract With the development of biped robots, systems became able to navigate in a 3 dimensional w...
We present a randomised potential-field based motion planning approach for rough-terrain mobile robo...
Intelligent terrain perception for search-and-rescue robotic applications, requires a high-level und...
This paper addresses the issues of unstructured terrain modeling for the purpose of navigation with ...