Inverse kinematics solution of robot manipulator end-effector position using multi-neural networks

Time cited in Arcif : 
2

Joint Authors

Hamidi, Amjad Jalil
Karim, Azad Rahim
Rahim, Firas Abd al-Razzaq

Source

Engineering and Technology Journal

Issue

Vol. 34, Issue 7A (31 Jul. 2016), pp.1360-1368, 9 p.

Publisher

University of Technology

Publication Date

2016-07-31

Country of Publication

Iraq

No. of Pages

9

Main Subjects

Chemistry

Abstract EN

-This paper proposes multi-neural networks structure for solving the inverse kinematic problem of the robot manipulator end-effector position.

It offers an opportunity to reduce substantially the error of the solution.

This error frequently arises when only one neural network is used.

In this structure, each neural network is a multilayer perceptron (MLP) trained by the back propagation algorithm.

The proposed approach verified by including it within an overall Cartesian trajectory planning system.

This structure could produce the robot joint variables that are not included in the training data with an average error ±0.06º, and ±0.15º, ±0.05º for joint angles θ?, θ? and θ? respectively.

From the simulation results, the proposed structure of multineural network has superior performance for modeling the complex robot kinematics

American Psychological Association (APA)

Rahim, Firas Abd al-Razzaq& Karim, Azad Rahim& Hamidi, Amjad Jalil. 2016. Inverse kinematics solution of robot manipulator end-effector position using multi-neural networks. Engineering and Technology Journal،Vol. 34, no. 7A, pp.1360-1368.
https://search.emarefa.net/detail/BIM-700674

Modern Language Association (MLA)

Hamidi, Amjad Jalil…[et al.]. Inverse kinematics solution of robot manipulator end-effector position using multi-neural networks. Engineering and Technology Journal Vol. 34, no. 7A (2016), pp.1360-1368.
https://search.emarefa.net/detail/BIM-700674

American Medical Association (AMA)

Rahim, Firas Abd al-Razzaq& Karim, Azad Rahim& Hamidi, Amjad Jalil. Inverse kinematics solution of robot manipulator end-effector position using multi-neural networks. Engineering and Technology Journal. 2016. Vol. 34, no. 7A, pp.1360-1368.
https://search.emarefa.net/detail/BIM-700674

Data Type

Journal Articles

Language

English

Notes

Includes appendices : p. 1365-1363

Record ID

BIM-700674