Langue: anglais
Edité par Society for Industrial & Applied, 2000
ISBN 10 : 089871446X ISBN 13 : 9780898714463
Vendeur : Revaluation Books, Exeter, Royaume-Uni
EUR 68,57
Quantité disponible : 2 disponible(s)
Ajouter au panierPaperback. Etat : Brand New. 140 pages. 10.00x7.25x0.50 inches. In Stock.
Langue: anglais
Edité par Society for Industrial and Applied Mathematics,U.S., US, 2000
ISBN 10 : 089871446X ISBN 13 : 9780898714463
Vendeur : Rarewaves.com USA, London, LONDO, Royaume-Uni
EUR 82,53
Quantité disponible : 1 disponible(s)
Ajouter au panierPaperback. Etat : New. Containing a unique description of the nonholonomic motion of systems of rigid bodies by differential algebraic systems, this book focuses on rigid body systems subjected to kinematic constraints (constraints that depend on the velocities of the bodies, e.g., as they arise for nonholonomic motions) and discusses in detail how the equations of motion are developed. The authors show that such motions can be modeled in terms of differential algebraic equations (DAEs), provided only that the correct variables are introduced.Several issues are investigated in depth to provide a sound and complete justification of the DAE model. These issues include the development of a generalized Gauss principle of least constraint, a study of the effect of the failure of an important full-rank condition, and a precise characterization of the state spaces. In particular, when the mentioned full-rank condition is not satisfied, this book shows how a new set of equivalent constraints can be constructed in a completely intrinsic way, where, in general, these new constraints comply with the full-rank requirement.Several equivalent DAE formulations are discussed and analyzed thoroughly. The value of these DAE models rests upon the premise that they are more accessible than others to an effective numerical treatment. To substantiate this, a numerical algorithm is presented and numerical results for several standard problems are included to demonstrate the efficiency of this approach.
Langue: anglais
Edité par Society for Industrial and Applied Mathematics, 1987
ISBN 10 : 089871446X ISBN 13 : 9780898714463
Vendeur : SHIMEDIA, Brooklyn, NY, Etats-Unis
EUR 133,07
Quantité disponible : 1 disponible(s)
Ajouter au panierEtat : New. Satisfaction Guaranteed or your money back.
Langue: anglais
Edité par Society for Industrial and Applied Mathematics,U.S., US, 2000
ISBN 10 : 089871446X ISBN 13 : 9780898714463
Vendeur : Rarewaves.com UK, London, Royaume-Uni
EUR 74,50
Quantité disponible : 1 disponible(s)
Ajouter au panierPaperback. Etat : New. Containing a unique description of the nonholonomic motion of systems of rigid bodies by differential algebraic systems, this book focuses on rigid body systems subjected to kinematic constraints (constraints that depend on the velocities of the bodies, e.g., as they arise for nonholonomic motions) and discusses in detail how the equations of motion are developed. The authors show that such motions can be modeled in terms of differential algebraic equations (DAEs), provided only that the correct variables are introduced.Several issues are investigated in depth to provide a sound and complete justification of the DAE model. These issues include the development of a generalized Gauss principle of least constraint, a study of the effect of the failure of an important full-rank condition, and a precise characterization of the state spaces. In particular, when the mentioned full-rank condition is not satisfied, this book shows how a new set of equivalent constraints can be constructed in a completely intrinsic way, where, in general, these new constraints comply with the full-rank requirement.Several equivalent DAE formulations are discussed and analyzed thoroughly. The value of these DAE models rests upon the premise that they are more accessible than others to an effective numerical treatment. To substantiate this, a numerical algorithm is presented and numerical results for several standard problems are included to demonstrate the efficiency of this approach.