We present a computationally efficient technique aimed at planning bipedal walking trajectories for push recovery. By modifying a layered walking controller, in case of pushes, we are able to plan a new position and timing for the forthcoming step. Tests have been performed in the Gazebo simulation environment using the one-meter-tall iCub humanoid robot model. Results show the effectiveness of the approach in stabilizing walking motions in case of strong external disturbances.https://youtu.be/BOPfzk917b
Walking is a core task for humanoid robots. Most existing walking controllers fall into one of two c...
Bipedal locomotion is still an open problem in the humanoid community. This thesis proposes a comple...
Abstract — Though balancing is a fundamental part of human walking, it has been a challenging topic ...
We propose a new algorithm capable of online regeneration of walking gait patterns. The ...
In this paper, we present a simple control framework for online push recovery on biped robots with d...
Kryczka P, Kormushev P, Tsagarakis NG, Caldwell DG. Online regeneration of bipedal walking gait patt...
International audienceThis paper proposes a novel approach to online replan the walking trajectory o...
Abstract — Humanoid robots have many potential applica-tions in man-made environments, including per...
Humanoid robots in any environment are likely to experience collisions with obstacles or imbalance w...
Push recovery is an essential requirement for a humanoid robot with the objective of safely performi...
Current state-of-the-art walking controllers for humanoid robots use simple models, such as Linear I...
In this paper, a novel online biped walking gait pattern generating method with contact consistency ...
Abstract — This paper describes the online generation of tra-jectories for omnidirectional walking o...
Bipedal humanoid robots are intrinsically unstable against unforeseen perturbations. Conventional ze...
This work proposes a multibody dynamics approach to generate joint trajectories for a five degrees o...
Walking is a core task for humanoid robots. Most existing walking controllers fall into one of two c...
Bipedal locomotion is still an open problem in the humanoid community. This thesis proposes a comple...
Abstract — Though balancing is a fundamental part of human walking, it has been a challenging topic ...
We propose a new algorithm capable of online regeneration of walking gait patterns. The ...
In this paper, we present a simple control framework for online push recovery on biped robots with d...
Kryczka P, Kormushev P, Tsagarakis NG, Caldwell DG. Online regeneration of bipedal walking gait patt...
International audienceThis paper proposes a novel approach to online replan the walking trajectory o...
Abstract — Humanoid robots have many potential applica-tions in man-made environments, including per...
Humanoid robots in any environment are likely to experience collisions with obstacles or imbalance w...
Push recovery is an essential requirement for a humanoid robot with the objective of safely performi...
Current state-of-the-art walking controllers for humanoid robots use simple models, such as Linear I...
In this paper, a novel online biped walking gait pattern generating method with contact consistency ...
Abstract — This paper describes the online generation of tra-jectories for omnidirectional walking o...
Bipedal humanoid robots are intrinsically unstable against unforeseen perturbations. Conventional ze...
This work proposes a multibody dynamics approach to generate joint trajectories for a five degrees o...
Walking is a core task for humanoid robots. Most existing walking controllers fall into one of two c...
Bipedal locomotion is still an open problem in the humanoid community. This thesis proposes a comple...
Abstract — Though balancing is a fundamental part of human walking, it has been a challenging topic ...