Dynamics and Balancing of Multibody Systems (Lecture Notes in Applied and Computational Mechanics, 37)

Chaudhary, Himanshu; Saha, Subir Kumar

ISBN 10: 3642096859 / ISBN 13: 9783642096853

Edité par Springer, 2010

A propos de cet article

In. N° de réf. du vendeur ria9783642096853_new

Détails bibliographiques

Titre : Dynamics and Balancing of Multibody Systems ...

Éditeur : Springer

Date d'édition : 2010

Reliure : Couverture souple

Etat : New

A propos de ce titre

Synopsis :

This book has evolved from the passionate desire of the authors in using the modern concepts of multibody dynamics for the design improvement of the machineries used in the rural sectors of India and The World. In this connection, the first author took up his doctoral research in 2003 whose findings have resulted in this book. It is expected that such developments will lead to a new research direction MuDRA, an acronym given by the authors to “Multibody Dynamics for Rural Applications. ” The way Mu- DRA is pronounced it means ‘money’ in many Indian languages. It is hoped that practicing MuDRA will save or generate money for the rural people either by saving energy consumption of their machines or making their products cheaper to manufacture, hence, generating more money for their livelihood. In this book, the initial focus was to improve the dynamic behavior of carpet scrapping machines used to wash newly woven hand-knotted c- pets of India. However, the concepts and methodologies presented in the book are equally applicable to non-rural machineries, be they robots or - tomobiles or something else. The dynamic modeling used in this book to compute the inertia-induced and constraint forces for the carpet scrapping machine is based on the concept of the decoupled natural orthogonal c- plement (DeNOC) matrices. The concept is originally proposed by the second author for the dynamics modeling and simulation of serial and - rallel-type multibody systems, e. g.

Présentation de l'éditeur:

This monograph develops a unified methodology for dynamic analysis and minimization of the inertia-induced forces occurring in high speed multiloop planar as well as spatial mechanisms based on the multibody system modeling approach.