Legged robots can walk stably down slopes without any actuation or control. The locomotion is called passive dynamic walking. Its dynamics at foot strike are governed by impact forces. The impulsive dynamics have been modelled in several approaches, where all the approaches assume that the stance leg instantaneously loses contact with the ground at foot strike. The loss-of-contact assumption has been introduced so as to guarantee conservation of angular momentum at foot strike; however, it is shown in this paper that the loss-of-contact assumption is neither necessary nor sufficient for that purpose. This paper provides a necessary and sufficient condition for conservation of angular momentum at foot strike in a modelling framework for mult...
This paper proposes a foot shape design to enhance stability of passive dynamic walk, by constrainin...
For decades, biologists believed that animals walk because the brain calculates motion trajectories ...
The concept of “passive dynamic walking robot” refers to the robot that can walk down a shallow slop...
Energetic efficiency is a fundamental subject of research in bipedal robot locomotion. In such syste...
To achieve high walking stability for a passive dynamic walking robot is not easy. In this article, ...
Biped locomotion has two characteristics: 1) repeating impact at the moment when the foot contacts w...
Based on the impulsive-dynamics formulation, this article presents the analysis of different strateg...
This article belongs to the Special Issue Optimization of Motion Planning and Control for Automatic ...
AbstractWalking without impacts has been considered in dynamics as a motion/force control problem. I...
In this paper, we present the role of ground contact angle in passive dynamic walking and running wi...
This paper presents a novel method of stabilizing hybrid models of torque-constrained, underactuated...
Abstract — In this paper, we propose a new method for biped humanoids to compensate for large amount...
Abstract — In order to engage in useful activities upright legged creatures must be able to maintain...
Simple walking models, like the compass-gait model, have yielded useful insight into the basic mecha...
Dynamic walking approach has got its significance because of its energy efficiency in walking.\ud Wa...
This paper proposes a foot shape design to enhance stability of passive dynamic walk, by constrainin...
For decades, biologists believed that animals walk because the brain calculates motion trajectories ...
The concept of “passive dynamic walking robot” refers to the robot that can walk down a shallow slop...
Energetic efficiency is a fundamental subject of research in bipedal robot locomotion. In such syste...
To achieve high walking stability for a passive dynamic walking robot is not easy. In this article, ...
Biped locomotion has two characteristics: 1) repeating impact at the moment when the foot contacts w...
Based on the impulsive-dynamics formulation, this article presents the analysis of different strateg...
This article belongs to the Special Issue Optimization of Motion Planning and Control for Automatic ...
AbstractWalking without impacts has been considered in dynamics as a motion/force control problem. I...
In this paper, we present the role of ground contact angle in passive dynamic walking and running wi...
This paper presents a novel method of stabilizing hybrid models of torque-constrained, underactuated...
Abstract — In this paper, we propose a new method for biped humanoids to compensate for large amount...
Abstract — In order to engage in useful activities upright legged creatures must be able to maintain...
Simple walking models, like the compass-gait model, have yielded useful insight into the basic mecha...
Dynamic walking approach has got its significance because of its energy efficiency in walking.\ud Wa...
This paper proposes a foot shape design to enhance stability of passive dynamic walk, by constrainin...
For decades, biologists believed that animals walk because the brain calculates motion trajectories ...
The concept of “passive dynamic walking robot” refers to the robot that can walk down a shallow slop...