This article develops a formalism for describing and analyzing a very simple representative class of robotic tasks that require dynamical dexterity - among them, the task of juggling. The authors review their empirical success, to date, with a new class of control algorithms for this task domain, called mirror algorithms. The formalism for representing the task domain and encoding within it the desired robot behavior enables them to prove that a suitable mirror algorithm is correct with respect to a specified task
In previous papers we have reported successful laboratory implementations of a family of juggling al...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...
This article develops a formalism for describing and analyzing a very simple representative class of...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
We have developed a formalism for describing and analyzing a very simple representative of a class o...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
A new class of control algorithms—the “mirror algorithms”— gives rise to experimentally observed jug...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
We explore a very simple representative of a class of of robotic tasks which require dynamic dexter...
We explore a very simple representative of a class of of robotic tasks which require dynamic dexter...
A new class of control algorithms—the "mirror algorithms"— gives rise to experimentally observed jug...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...
This article develops a formalism for describing and analyzing a very simple representative class of...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
We have developed a formalism for describing and analyzing a very simple representative of a class o...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
A new class of control algorithms—the “mirror algorithms”— gives rise to experimentally observed jug...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
We explore a very simple representative of a class of of robotic tasks which require dynamic dexter...
We explore a very simple representative of a class of of robotic tasks which require dynamic dexter...
A new class of control algorithms—the "mirror algorithms"— gives rise to experimentally observed jug...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...