Stable locomotion that tolerates parameter variations is an important feature for legged robots. In this paper we introduce a locomotion control framework for legged robots that combines the well-known spring-loaded inverted pendulum (SLIP) with active hip actuation through Central Pattern Generators. Using this framework we present studies suggesting that compliant in contrast to rigid hip actuation and the addition of a simple feedback scheme can highly enhance the robustness of the robot locomotion against parameter changes
It has long been established that simple spring-mass models can accurately represent the dynamics of...
Implementing dynamic legged locomotion entails stabilizing oscillatory behaviors in complex mechanic...
This paper is aimed at presenting a locomotion control framework to realize agile and robust locomot...
Despite advancement in the field of robotics, current legged robots still cannot achieve the kind of...
Running and hopping follow similar patterns for different animals, independent of the number of legs...
Spring Loaded Inverted Pendulum (SLIP) model has a long history in describing running behavior in an...
We present a control strategy for a simplified model of a one-legged running robot which features co...
Spring-loaded inverted pendulum (SLIP) template (and its various derivatives) could be considered as...
Fast, ecient and versatile locomotion is the objective of the cutting-edge research of legged robots...
Robotic legs often lag behind the performance of their biological counterparts. The inherent passive...
Abstract: Spring-like leg behavior was found in the global dynamics of human and animal running in s...
One of the key topics in robotics is legged locomotion, taking inspiration from walking and bouncing...
The spring loaded inverted pendulum (SLIP) model has been extensively shown to be fundamental for le...
The dynamics of a Spring Loaded Inverted Pendulum (SLIP) \template” [1] approximate well the center ...
cient and robust locomotion is a crucial condition for the more extensive use of legged robots in re...
It has long been established that simple spring-mass models can accurately represent the dynamics of...
Implementing dynamic legged locomotion entails stabilizing oscillatory behaviors in complex mechanic...
This paper is aimed at presenting a locomotion control framework to realize agile and robust locomot...
Despite advancement in the field of robotics, current legged robots still cannot achieve the kind of...
Running and hopping follow similar patterns for different animals, independent of the number of legs...
Spring Loaded Inverted Pendulum (SLIP) model has a long history in describing running behavior in an...
We present a control strategy for a simplified model of a one-legged running robot which features co...
Spring-loaded inverted pendulum (SLIP) template (and its various derivatives) could be considered as...
Fast, ecient and versatile locomotion is the objective of the cutting-edge research of legged robots...
Robotic legs often lag behind the performance of their biological counterparts. The inherent passive...
Abstract: Spring-like leg behavior was found in the global dynamics of human and animal running in s...
One of the key topics in robotics is legged locomotion, taking inspiration from walking and bouncing...
The spring loaded inverted pendulum (SLIP) model has been extensively shown to be fundamental for le...
The dynamics of a Spring Loaded Inverted Pendulum (SLIP) \template” [1] approximate well the center ...
cient and robust locomotion is a crucial condition for the more extensive use of legged robots in re...
It has long been established that simple spring-mass models can accurately represent the dynamics of...
Implementing dynamic legged locomotion entails stabilizing oscillatory behaviors in complex mechanic...
This paper is aimed at presenting a locomotion control framework to realize agile and robust locomot...