DocumentCode
1798423
Title
Qualitative approach for inverse kinematic modeling of a Compact Bionic Handling Assistant trunk
Author
Melingui, A. ; Merzouki, Rochdi ; Mbede, J.B. ; Escande, Coralie ; Daachi, B. ; Benoudjit, N.
Author_Institution
Ecole Poly-Tech. de Lille, LAGIS, Villeneuve-d´Ascq, France
fYear
2014
fDate
6-11 July 2014
Firstpage
754
Lastpage
761
Abstract
Compact Bionic Handling Assistant (CBHA) is a continuum manipulator, with pneumatic-based actuation and compliant gripper. This bionic arm is attached to a mobile robot named Robotino. Inspired by the elephant´s trunk, it can reproduce biological behaviors of trunks, tentacles, or snakes. Unlike rigid link robot manipulators, the development of high performance control algorithm of continuum robot manipulators remains a challenge, particularly due to their complex mechanical design, hyper-redundancy and presence of uncertainties. Numerous studies have been investigated for modeling of such complex systems. Such continuum robots, like the CBHA present a set of nonlinearities and uncertainties, making difficult to build an accurate analytical model, which can be used for control strategies development. Hence, learning approach becomes a suitable tool in such scenarios in order to capture un-modeled nonlinear behaviors of the continuous robots. In this paper, we present a qualitative modeling approach, based on neuronal model of the inverse kinematic of CBHA. A penalty term constraint is added to the inverse objective function into Distal Supervised Learning (DSL) scheme to select one particular inverse model from the redundancy manifold. The inverse kinematic neuronal model is validated by conducting a real-time implementation on a CBHA trunk.
Keywords
biocybernetics; learning (artificial intelligence); manipulator kinematics; mobile robots; pneumatic systems; CBHA; DSL scheme; Robotino; compact bionic handling assistant trunk; compliant gripper; continuum robot manipulators; distal supervised learning; inverse kinematic; inverse kinematic modeling; inverse objective function; learning approach; mobile robot; pneumatic based actuation; qualitative approach; rigid link robot manipulators; unmodeled nonlinear behaviors; Biological neural networks; DSL; Kinematics; Manipulators; Training;
fLanguage
English
Publisher
ieee
Conference_Titel
Neural Networks (IJCNN), 2014 International Joint Conference on
Conference_Location
Beijing
Print_ISBN
978-1-4799-6627-1
Type
conf
DOI
10.1109/IJCNN.2014.6889947
Filename
6889947
Link To Document