Biologically-inspired dynamical systems for movement generation: Automatic real-time goal adaptation and obstacle avoidance
By Heiko Hoffmann, Peter Pastor, Dae-Hyung Park, Stefan Schaal. 2009
304 citations recorded by the source corpus.
Subfields: Artificial Intelligence, Biomedical Engineering, Control and Systems Engineering
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Artificial Intelligence
- Jan Peters
- Sergey Levine
- Pieter Abbeel
- Gerhard Neumann
- Marc Peter Deisenroth
- Chelsea Finn
- Sylvain Calinon
- Stefan Schaal
In Biomedical Engineering
- Jan Peters
- Sergey Levine
- Stefan Schaal
- Gerhard Neumann
- Marc Peter Deisenroth
- Peter Pastor
- Pieter Abbeel
- Mrinal Kalakrishnan
In Control and Systems Engineering
- Jan Peters
- Sergey Levine
- Gerhard Neumann
- Pieter Abbeel
- Stefan Schaal
- Marc Peter Deisenroth
- Chelsea Finn
- Mrinal Kalakrishnan
Citations in the corpus
- Skill learning and task outcome prediction for manipulation (2011, methodology): “In this paper, the realization of the transformation system presented in [16], [ 17 ] has been chosen ‐ this is a special variant of the original DMP formulation that added robustness towards some numerical characteristics of the original DMPs, but has only reduced (localized) generalization as glob”
- Latent spaces for dynamic movement primitives (2009, methodology): “Recently a reformulation of DMPs has been proposed [ 10 ] which is suited for applying DMPs in task space and allows for automatic obstacle avoidance.”
- Robot motor skill coordination with EM-based Reinforcement Learning (2010, methodology): “The above formulation shares similarities with the Dynamic Movement Primitives (DMP) framework originally proposed by Ijspeert et al [22], and further extended in [13], [ 23 ] (see [24] for a discussion on the similarities of the proposed controller with DMP).”
- Guiding Trajectory Optimization by Demonstrated Distributions (2017, background): “A typical way to achieve obstacle avoidance is to set repulsive motions around obstacles or to diminish motions towards obstacles [12], [13].”
- Learning and generalization of motor skills by learning from demonstration (2009, methodology): “We replace the transformation system by the following equations [7]:”
- Probabilistic model-based imitation learning (2013, background): “, real-time goal adaption [17] or generalizing movements with a mixture of DMPs [23].”
- Imitation Learning of Positional and Force Skills Demonstrated via Kinesthetic Teaching and Haptic Input (2011, methodology): “The Dynamic Movement Primitives (DMP) framework originally proposed by Ijspeert et al [19], and further extended in [20,21] (see [22] for a discussion on the similarities of the proposed controller with DMP) is extended by considering a full matrix K P i associated with each of the K primitives (or…”
- A Dynamical System-based Approach to Modeling Stable Robot Control Policies via Imitation Learning (2012, unknown): “, 2009), flight control (Perk & Slotine, 2006), obstacle avoidance (Park et al., 2008; Hoffmann et al., 2009), lifting (Bitzer & Vijayakumar, 2009), playing table-tennis (Kober, Mulling, et al.”
- Dynamical Movement Primitives: Learning Attractor Models for Motor Behaviors (2013, background): “Fajen and Warren (2003) suggested a model for human obstacle avoidance that is nicely suited to demonstrate the power of coupling terms in our approach (Hoffmann et al., 2009).”
- Spatial adaption of robot trajectories based on laplacian trajectory editing (2015, unknown): “Instead of programming every single movement by hand, the robot imitates a demonstrated movement either through physical guidance also known as kinesthetic teaching (Lee and Ott 2011) or through suitable learning and adaption meth-ods (Schaal 2006; Hoffmann et al. 2009).”