Abstract — Redundant tendon-driven systems such as the human hand or the ACT robotic hand are high-dimensional and nonlinear systems that make traditional control strategies ineffective. The synergy hypothesis from neuroscience suggests that employing dimensionality reduction techniques can sim-plify the system without a major loss in function. We define a dimensionality reduction framework consisting of separate observation and activation synergies, a first-order model, and an optimal controller. The framework is implemented for two example tasks: adaptive control of thumb posture and hybrid position/force control to enable dynamic handwriting. I
Abstract — Humans employ context-specific internal models for their bodies and the world around them...
position and stiffness control strategy based on dynamic artificial neurons able to simulate the neu...
Our primary interaction with the world is through the spontaneous generation of movement. In particu...
Redundant tendon-driven systems such as the human hand or the ACT robotic hand are high-dimensional ...
The human hand is an excellent example of versatile architecture which can easily accomplish numerou...
In this paper, we build upon recent advances in neuroscience research which have shown that control ...
Bio-inspired designs are motivated by efficiency, adaptability and robustness of biological systems ...
Abstract—Tendon-driven systems are ubiquitous in biology and provide considerable advantages for rob...
Humans show stunning performance on a variety of manipulation tasks. However, little is known about ...
Abstract — With the goal of developing human-like dextrous manipulation, we investigate how the cent...
Bio-inspired designs are motivated by efficiency, adaptability and robustness of biological systems...
This review reports the principal solutions proposed in the literature to reduce the complexity of t...
The complexity of robotic hands is needed to adapt devices to the many kinds of tasks, but the large...
Although human movements are extremely complex, our nervous system is able to implement effective co...
This book looks at the common problems both human and robotic hands encounter when controlling the l...
Abstract — Humans employ context-specific internal models for their bodies and the world around them...
position and stiffness control strategy based on dynamic artificial neurons able to simulate the neu...
Our primary interaction with the world is through the spontaneous generation of movement. In particu...
Redundant tendon-driven systems such as the human hand or the ACT robotic hand are high-dimensional ...
The human hand is an excellent example of versatile architecture which can easily accomplish numerou...
In this paper, we build upon recent advances in neuroscience research which have shown that control ...
Bio-inspired designs are motivated by efficiency, adaptability and robustness of biological systems ...
Abstract—Tendon-driven systems are ubiquitous in biology and provide considerable advantages for rob...
Humans show stunning performance on a variety of manipulation tasks. However, little is known about ...
Abstract — With the goal of developing human-like dextrous manipulation, we investigate how the cent...
Bio-inspired designs are motivated by efficiency, adaptability and robustness of biological systems...
This review reports the principal solutions proposed in the literature to reduce the complexity of t...
The complexity of robotic hands is needed to adapt devices to the many kinds of tasks, but the large...
Although human movements are extremely complex, our nervous system is able to implement effective co...
This book looks at the common problems both human and robotic hands encounter when controlling the l...
Abstract — Humans employ context-specific internal models for their bodies and the world around them...
position and stiffness control strategy based on dynamic artificial neurons able to simulate the neu...
Our primary interaction with the world is through the spontaneous generation of movement. In particu...