A new class of control algorithms—the "mirror algorithms"— gives rise to experimentally observed juggling and catching behavior in a planar robotic mechanism. The simplest of these algorithms (on which all the others are founded) is provably correct with respect to a simplified model of the robot and its environment. This article briefly reviews the physical setup and underlying mathematical theory. It discusses two significant extensions of the fundamental algorithm to juggling two objects and catching. We provide data from successful empirical verifi cations of these control strategies and briefly speculate on the larger implications for the field of robotics.Peer Reviewedhttp://deepblue.lib.umich.edu/bitstream/2027.42/67815/2/10.1177_027...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
We report on our recently achieved spatial two-juggle: the ability to bat two freely falling balls i...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the “mirror algorithms”— gives rise to experimentally observed jug...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
We have developed a formalism for describing and analyzing a very simple representative of a class o...
This article develops a formalism for describing and analyzing a very simple representative class of...
This article develops a formalism for describing and analyzing a very simple representative class of...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
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 report on our recently achieved spatial two-juggle: the ability to bat two freely falling balls i...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the "mirror algorithms"— gives rise ...
A new class of control algorithms—the “mirror algorithms”— gives rise to experimentally observed jug...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
A new class of control algorithms - “mirror algorithms” - give rise to experimentally observedjuggli...
We develop a formalism for describing and analyzing a very simple representative of a class of robot...
We have developed a formalism for describing and analyzing a very simple representative of a class o...
This article develops a formalism for describing and analyzing a very simple representative class of...
This article develops a formalism for describing and analyzing a very simple representative class of...
In previous papers we have reported successful laboratory implementations of a family of juggling al...
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 report on our recently achieved spatial two-juggle: the ability to bat two freely falling balls i...
We discuss the sensory management strategy that has evolved over the course of our efforts to build ...