Hyper-redundant robots have a very large or infinite degree of kinematic redundancy. A generalized resolved-rate technique for solving hyper-redundant manipulator inverse kinematics using a backbone curve is introduced. This method is applicable even in cases when explicit representation of the backbone curve intrinsic geometry cannot be written in closed form. Problems of end-effector trajectory tracking which were previously intractable can now be handled with this technique. Examples include configurations generated using the calculus of variations. The method is naturally parallelizable for fast digital and/or analog computation
Research on control, design and programming of kinematically redundant robot manipulators (KRRM) is ...
In this paper a new approach that generates a general algorithm for n-link hyper-redundant robot is...
The trajectory planning of redundant robots is an important area of research and efficient optimizat...
Hyper-redundant robots have a very large or infinite degree of kinematic redundancy. A generalized r...
“Hyper-redundant” robots have a very large or infinite degree of kinematic redundancy. This paper de...
This paper presents novel and efficient kinematic modeling techniques for “hyper-redundant” robots. ...
Hyper-redundant robots have a very large or infinite degree of kinematic redundancy. The authors dev...
Hyper-redundant robots have a large or infinite number of degrees of freedom. Such robots are analog...
Many tasks which manipulators must perform occur in the presence of obstacles. While a variety of a...
A method is presented for generating inverse kinematic solutions for hyper-redundant manipulators of...
A method is presented for generating inverse kinematic solutions for hyper-redundant manipulators of...
Hyper-redundant manipulators have large number of kinematic degrees of freedom, thus processing some...
Hyper-redundant spatial manipulators possess fault-tolerant features because of their redundant stru...
Hyper-redundant robots are characterized by the presence of a large number of actuated joints, many ...
Hyper-redundant robots are characterized by the presence of a large number of actuated joints, many ...
Research on control, design and programming of kinematically redundant robot manipulators (KRRM) is ...
In this paper a new approach that generates a general algorithm for n-link hyper-redundant robot is...
The trajectory planning of redundant robots is an important area of research and efficient optimizat...
Hyper-redundant robots have a very large or infinite degree of kinematic redundancy. A generalized r...
“Hyper-redundant” robots have a very large or infinite degree of kinematic redundancy. This paper de...
This paper presents novel and efficient kinematic modeling techniques for “hyper-redundant” robots. ...
Hyper-redundant robots have a very large or infinite degree of kinematic redundancy. The authors dev...
Hyper-redundant robots have a large or infinite number of degrees of freedom. Such robots are analog...
Many tasks which manipulators must perform occur in the presence of obstacles. While a variety of a...
A method is presented for generating inverse kinematic solutions for hyper-redundant manipulators of...
A method is presented for generating inverse kinematic solutions for hyper-redundant manipulators of...
Hyper-redundant manipulators have large number of kinematic degrees of freedom, thus processing some...
Hyper-redundant spatial manipulators possess fault-tolerant features because of their redundant stru...
Hyper-redundant robots are characterized by the presence of a large number of actuated joints, many ...
Hyper-redundant robots are characterized by the presence of a large number of actuated joints, many ...
Research on control, design and programming of kinematically redundant robot manipulators (KRRM) is ...
In this paper a new approach that generates a general algorithm for n-link hyper-redundant robot is...
The trajectory planning of redundant robots is an important area of research and efficient optimizat...