Journal: Robotics and Autonomous Systems
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Abbreviation
Robot. auton. syst.
Publisher
Elsevier
35 results
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Publications 1 - 10 of 35
- A decomposition approach to multi-vehicle cooperative controlItem type: Journal Article
Robotics and Autonomous SystemsEarl, Matthew G.; D'Andrea, Raffaello (2007) - Bayesian space conceptualization and place classification for semantic maps in mobile roboticsItem type: Journal Article
Robotics and Autonomous SystemsVasudevan, Shrihari; Siegwart, Roland (2008) - Multisensor On-the-Fly LocalizationItem type: Journal Article
Robotics and Autonomous SystemsArras, Kai O.; Tomatis, Nicola; Jensen, Björn T.; et al. (2001) - Robox at Expo.02Item type: Journal Article
Robotics and Autonomous SystemsSiegwart, Roland; Arras, Kai O.; Bouabdallah, Samir; et al. (2003) - Robox at Expo.02: A large-scale installation of personal robotsItem type: Conference Paper
Robotics and Autonomous SystemsSiegwart, Roland; Arras, Kai O.; Bouabdallah, Samir; et al. (2003) - Compact Q-Learning Optimized for Micro-robots with Processing and Memory ConstraintsItem type: Conference Paper
Robotics and Autonomous SystemsAsadpour, Masoud; Siegwart, Roland (2004)Scaling down robots to miniature size introduces many new challenges including memory and program size limitations, low processor performance and low power autonomy. In this paper we describe the concept and implementation of learning of a safe-wandering task with the autonomous micro-robots, Alice. We propose a simplified reinforcement learning algorithm based on one-step Q-learning that is optimized in speed and memory consumption. This algorithm uses only integer-based sum operators and avoids floating-point and multiplication operators. Finally, quality of learning is compared to a floating-point based algorithm. - Automatic extension of a symbolic mobile manipulation skill setItem type: Journal Article
Robotics and Autonomous SystemsFörster, Julian; Ott, Lionel; Nieto, Juan; et al. (2023)Symbolic planning can provide an intuitive interface for non-expert users to operate autonomous robots by abstracting away much of the low-level programming. However, symbolic planners assume that the initially provided abstract domain and problem descriptions are closed and complete. This means that they are fundamentally unable to adapt to changes in the environment or tasks that are not captured by the initial description. We propose a method that allows an agent to automatically extend the abstract description of its skill set upon encountering such a situation. We introduce strategies for generalizing from previous experience, completing sequences of key actions and discovering preconditions to ensure computational efficiency. The resulting system is evaluated on a symbolic planning benchmark task and on object rearrangement tasks in simulation. Compared to a Monte Carlo Tree Search baseline, our strategies for efficient search have on average a 25% higher success rate at a 67% faster runtime. Code is available at https://github.com/ethz-asl/high_level_planning. - New technologies for testing a model of cricket phonotaxis on an outdoor robotItem type: Journal Article
Robotics and Autonomous SystemsReeve, Richard; Webb, Barbara; Horchler, Andrew; et al. (2005) - Innovative design for wheeled locomotion in rough terrainItem type: Journal Article
Robotics and Autonomous SystemsSiegwart, Roland; Lamon, Pierre; Estier, Thomas; et al. (2002) - Robot learning from demonstrationItem type: Other Journal Item
Robotics and Autonomous SystemsBillard, Aude; Siegwart, Roland (2004)
Publications 1 - 10 of 35