As one of the fastest running animals on land, the ostrich’s excellent athletic ability benefits from its unique leg structure. Based on the idea of bionics, this paper intends to obtain a kind of robotic leg structure with a similar buffering capacity to that of the ostrich. For this purpose, the structural characteristics of a seven-link parallel mechanism are analyzed firstly, having some specific features similar to ostrich legs, such as the center of mass (COM) located at the root of the leg, a large folding/unfolding ratio, and so on. Then, the kinematic model of the bionic leg is established, and the energy storage of the flexible parts of the leg is investigated. Finally, an impact experiment of the structure onto the ground is carr...
In reality, biomechanical systems such as the human-body, mammal, and birds physically collide or in...
The ostrich (Struthio camelus) is the largest extant biped. Being flightless, it exhibits advanced c...
We developed a three-dimensional, biomechanical computer model of the 36 major pelvic limb muscle gr...
As the main actuator of high-speed running, the ostrich feet possess excellent cushioning and shock ...
The African ostrich (Struthio camelus) perennially living in deserts is outstanding with remarkable ...
As the main actuator of high-speed running, the ostrich feet are highly capable of cushioning and sh...
It is unclear whether small animals, with their high stride frequency and crouched posture, or large...
Abstract It is unclear whether small animals with their high stride frequency and crouched posture o...
The purpose of this study was to examine the mechanical adaptations linked to economical locomotion ...
Inspired by the performance of the ostrich in terms of loading and high-speed moving ability, the pu...
African ostrich (Struthio camelus) is the largest and fastest extent bipedal animal. The ostrich mai...
Ostriches are known to be the fastest bipedal animal alive; to accomplish such an achievement, their...
<div><p>Background</p><p>The ostrich <i>Struthio camelus</i> reaches the highest speeds of any extan...
African ostrich (Struthio camelus) is the largest and fastest extent bipedal animal. The ostrich mai...
Muscle-actuated control is a research topic of interest spanning different fields, in particular bio...
In reality, biomechanical systems such as the human-body, mammal, and birds physically collide or in...
The ostrich (Struthio camelus) is the largest extant biped. Being flightless, it exhibits advanced c...
We developed a three-dimensional, biomechanical computer model of the 36 major pelvic limb muscle gr...
As the main actuator of high-speed running, the ostrich feet possess excellent cushioning and shock ...
The African ostrich (Struthio camelus) perennially living in deserts is outstanding with remarkable ...
As the main actuator of high-speed running, the ostrich feet are highly capable of cushioning and sh...
It is unclear whether small animals, with their high stride frequency and crouched posture, or large...
Abstract It is unclear whether small animals with their high stride frequency and crouched posture o...
The purpose of this study was to examine the mechanical adaptations linked to economical locomotion ...
Inspired by the performance of the ostrich in terms of loading and high-speed moving ability, the pu...
African ostrich (Struthio camelus) is the largest and fastest extent bipedal animal. The ostrich mai...
Ostriches are known to be the fastest bipedal animal alive; to accomplish such an achievement, their...
<div><p>Background</p><p>The ostrich <i>Struthio camelus</i> reaches the highest speeds of any extan...
African ostrich (Struthio camelus) is the largest and fastest extent bipedal animal. The ostrich mai...
Muscle-actuated control is a research topic of interest spanning different fields, in particular bio...
In reality, biomechanical systems such as the human-body, mammal, and birds physically collide or in...
The ostrich (Struthio camelus) is the largest extant biped. Being flightless, it exhibits advanced c...
We developed a three-dimensional, biomechanical computer model of the 36 major pelvic limb muscle gr...