arminhornung.de
www.ArminHornung.de - Die Homepage von Armin Hornung: Code
http://www.arminhornung.de/Code_de
Die private Homepage von Armin Hornung. You can find most of the code that I develop and maintain on github.com/ahornung. See below for a short overview of some larger projects. 3D Mapping with OctoMap. Provides a compact and efficient C data structure for mapping 3D environments, e.g. with mobile robots. I am the co-developer and current maintainer of the project, which is available open-source at GitHub. Under the BSD license. See octomap.github.io. Humanoid Robot Navigation for ROS. Zuletzt geänd...
arminhornung.de
www.ArminHornung.de - Die Homepage von Armin Hornung: Code
http://www.arminhornung.de/Code
Die private Homepage von Armin Hornung. You can find most of the code that I develop and maintain on github.com/ahornung. See below for a short overview of some larger projects. 3D Mapping with OctoMap. Provides a compact and efficient C data structure for mapping 3D environments, e.g. with mobile robots. I am the co-developer and current maintainer of the project, which is available open-source at GitHub. Under the BSD license. See octomap.github.io. Humanoid Robot Navigation for ROS. Zuletzt geänd...
hardcorehackers.com
Nathan's Lucubrations; on computers, music and the outdoors
http://hardcorehackers.com/cgi-bin/blosxom
Nathan's Lucubrations; on computers, music and the outdoors. Thu, 21 Jan 2016. Day Hike: Black mountain from Garlock road. I hiked Black mountain, this time from the Garlock road side. Participants: Nathan Paul Simons, Stephen Verbovszky, Randy Turner. Weather notes: a little overcast, not cold. Success/failure: everyone made the peak. Vehicle mileage: 56km 54km = 110km. Hiking mileage: 8.3km 9.6km = 17.9km. Elevation gain: 856m 435m = 1291m. Drive time to: 1h20m. Drive time from: 1h5m. Thu, 19 Nov 2015.
mechlab-engineering.de
MechLab Engineering - Virtual Lidar Test Bench
http://mechlab-engineering.de/references/virtual-lidar-test-bench
Virtual Lidar Test Bench. Sie befinden sich hier: :. Virtual Lidar Test Bench. Virtual Lidar Test Bench. Zur Algorithmenentwicklung oder -absicherung ist es komfortabel, wenn das gewünschte Resultat (das „Soll“) bekannt ist. Bei der Messung von realen Situationen ergeben sich eine Vielzahl von kleinen, untergeordneten Nebeneffekten, welche das Ergebnis beeinflussen oder verfälschen. Für viele Anwendungsfälle ist dieser hohe Detailgrad nicht nötig, oftmals nicht gewünscht. Die virtuelle Messung erfolgt du...
hrl.informatik.uni-freiburg.de
Teaching - WS 2011/12 - Humanoid Robots Lab
http://hrl.informatik.uni-freiburg.de/teaching/ws11
Imitation of Human Whole-Body Motions. Autonomous Navigation Based on Depth Camera Data. Climbing Complex Staircases and Traversing Ramps. Efficient Vision-based Obstacle Avoidance. Efficient Path Planning for Humanoids. 6D Robot Localization in Complex Indoor Environments. Learning Reliable and Efficient Navigation with a Humanoid. Metric Localization with Scale-Invariant Visual Features using Monocular Vision. Learning Efficient Policies for Vision-based Navigation. Learning Motion Patterns of People.
hrl.informatik.uni-freiburg.de
Teaching - Humanoid Robots Lab
http://hrl.informatik.uni-freiburg.de/teaching
Imitation of Human Whole-Body Motions. Autonomous Navigation Based on Depth Camera Data. Climbing Complex Staircases and Traversing Ramps. Efficient Vision-based Obstacle Avoidance. Efficient Path Planning for Humanoids. 6D Robot Localization in Complex Indoor Environments. Learning Reliable and Efficient Navigation with a Humanoid. Metric Localization with Scale-Invariant Visual Features using Monocular Vision. Learning Efficient Policies for Vision-based Navigation. Learning Motion Patterns of People.
hrl.informatik.uni-freiburg.de
Publications 2012 - Humanoid Robots Lab
http://hrl.informatik.uni-freiburg.de/publications/2012
Imitation of Human Whole-Body Motions. Autonomous Navigation Based on Depth Camera Data. Climbing Complex Staircases and Traversing Ramps. Efficient Vision-based Obstacle Avoidance. Efficient Path Planning for Humanoids. 6D Robot Localization in Complex Indoor Environments. Learning Reliable and Efficient Navigation with a Humanoid. Metric Localization with Scale-Invariant Visual Features using Monocular Vision. Learning Efficient Policies for Vision-based Navigation. Learning Motion Patterns of People.
hrl.informatik.uni-freiburg.de
Teaching - WS 2012/13 - Humanoid Robots Lab
http://hrl.informatik.uni-freiburg.de/teaching/ws12
Imitation of Human Whole-Body Motions. Autonomous Navigation Based on Depth Camera Data. Climbing Complex Staircases and Traversing Ramps. Efficient Vision-based Obstacle Avoidance. Efficient Path Planning for Humanoids. 6D Robot Localization in Complex Indoor Environments. Learning Reliable and Efficient Navigation with a Humanoid. Metric Localization with Scale-Invariant Visual Features using Monocular Vision. Learning Efficient Policies for Vision-based Navigation. Learning Motion Patterns of People.
hrl.informatik.uni-freiburg.de
Systeme I WS 2013/14 - Humanoid Robots Lab
http://hrl.informatik.uni-freiburg.de/teaching/ws13/systeme
Imitation of Human Whole-Body Motions. Autonomous Navigation Based on Depth Camera Data. Climbing Complex Staircases and Traversing Ramps. Efficient Vision-based Obstacle Avoidance. Efficient Path Planning for Humanoids. 6D Robot Localization in Complex Indoor Environments. Learning Reliable and Efficient Navigation with a Humanoid. Metric Localization with Scale-Invariant Visual Features using Monocular Vision. Learning Efficient Policies for Vision-based Navigation. Learning Motion Patterns of People.