Abstract

This paper describes an intelligent computational scheme to obtain feasible solutions to the problem of inverse kinematics in robotics. The proposed scheme consists of a recurrent neural network and a knowledge-based (KB) system. The latter, based on the requirements and specifications of the robot task-space provided by the user, determines the neural network configuration and checks the robot link angles during the process of computation against the physical constraints. On the other hand, a recurrent neural network provides low-level computational features such as functional approximation, parallelism, learning and adaptation capabilities. The inverse kinematics problem in robotics involves the determination of joint variables for a desired end-effector position in the robot task-space. This problem is difficult in the sense that for a given end-effector position there can be many solutions, and some of these solutions may not be practically feasible due to the physical limitations imposed by the robot...

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