Abstract — A novel probabilistic online learning framework for autonomous off-road robot navigation is proposed. The system is purely vision-based and is particularly designed for predicting traversability in unknown or rapidly changing environments. It uses self-supervised learning to quickly adapt to novel terrains after processing a small number of frames, and it can recognize terrain elements such as paths, man-made structures, and natural obstacles at ranges up to 30 meters. The system is developed on the LAGR mobile robot platform and the performance is evaluated using multiple metrics, including ground truth. I
Robotic ground vehicles for outdoor applications have achieved some remarkable successes, notably in...
This paper describes a computationally inexpensive approach to learning and identification of maneuv...
The ability to have unmanned ground vehicles navigate unmapped off-road terrain has high impact pote...
Abstract — In mobile robotics, there are often features that, while potentially powerful for improvi...
Most vision-based approaches to mobile robotics suffer from the limitations im-posed by stereo obsta...
We present a solution to the problem of long-range obstacle/path recognition in autonomous robots. T...
Abstract: Long-range terrain perception has a high value in performing efficient autonomous navigati...
Konolige et al.: Mapping, Navigation, and Learning for Off-Road Traversal • 89 The challenge in the ...
Abstract—We present a learning-based approach for long-range vision that is able to accurately class...
Reliable terrain analysis is a key requirement for a mobile robot to operate safely in challenging e...
A robotic system can be characterized by its interactions with environments. With growing demand for...
Autonomous navigation by a mobile robot through L natural, unstructured terrain is one of the premie...
email:raia|ayse|koray|yann[at]cs.nyu.edu email:psermanet|janben|urs[at]net-scale.com Vision-based na...
Colour Stereo visions are the primary perception system of the most Unmanned Ground Vehicles (UGVs),...
Robust and reliable autonomous navigation in unstructured, off-road terrain is a critical element in...
Robotic ground vehicles for outdoor applications have achieved some remarkable successes, notably in...
This paper describes a computationally inexpensive approach to learning and identification of maneuv...
The ability to have unmanned ground vehicles navigate unmapped off-road terrain has high impact pote...
Abstract — In mobile robotics, there are often features that, while potentially powerful for improvi...
Most vision-based approaches to mobile robotics suffer from the limitations im-posed by stereo obsta...
We present a solution to the problem of long-range obstacle/path recognition in autonomous robots. T...
Abstract: Long-range terrain perception has a high value in performing efficient autonomous navigati...
Konolige et al.: Mapping, Navigation, and Learning for Off-Road Traversal • 89 The challenge in the ...
Abstract—We present a learning-based approach for long-range vision that is able to accurately class...
Reliable terrain analysis is a key requirement for a mobile robot to operate safely in challenging e...
A robotic system can be characterized by its interactions with environments. With growing demand for...
Autonomous navigation by a mobile robot through L natural, unstructured terrain is one of the premie...
email:raia|ayse|koray|yann[at]cs.nyu.edu email:psermanet|janben|urs[at]net-scale.com Vision-based na...
Colour Stereo visions are the primary perception system of the most Unmanned Ground Vehicles (UGVs),...
Robust and reliable autonomous navigation in unstructured, off-road terrain is a critical element in...
Robotic ground vehicles for outdoor applications have achieved some remarkable successes, notably in...
This paper describes a computationally inexpensive approach to learning and identification of maneuv...
The ability to have unmanned ground vehicles navigate unmapped off-road terrain has high impact pote...