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P. Balseiro, L. García-Naranjo (2011)
Gauge Transformations, Twisted Poisson Brackets and Hamiltonization of Nonholonomic SystemsArchive for Rational Mechanics and Analysis, 205
(2010)
Structurepreserving algorithms for ordinary differential equations
The target is β(x, g) = xg
F. Gay‐Balmaz, Darryl Holm, T. Ratiu (2011)
Higher order Lagrange-Poincaré and Hamilton-Poincaré reductionsBulletin of the Brazilian Mathematical Society, New Series, 42
J. Cariñena, Xavier Gràcia, G. Marmo, E. Martínez, M. Muñoz-Lecanda, N.Roman-Roy (2006)
Geometric Hamilton-Jacobi theoryInternational Journal of Geometric Methods in Modern Physics, 3
R. Fernandes, M. Crainic (2006)
Lectures on integrability of Lie bracketsarXiv: Differential Geometry
E. Martínez, T. Mestdag, W. Sarlet (2002)
Lie algebroid structures and Lagrangian systems on affine bundlesJournal of Geometry and Physics, 44
J. Cortés, Manuel De, L. On, J. Marrero, D. Mart´in, D. Diego (2005)
A SURVEY OF LAGRANGIAN MECHANICS AND CONTROL ON LIE ALGEBROIDS AND GROUPOIDSInternational Journal of Geometric Methods in Modern Physics, 03
B. Karasözen (2004)
Poisson integratorsMath. Comput. Model., 40
(1993)
Translated from the 1974 Russian original by
The inversion map is ι(x, g) = (xg, g −1 )
J. Marrero, D. Diego, A. Stern (2011)
Symplectic groupoids and discrete constrained Lagrangian mechanicsDiscrete and Continuous Dynamical Systems, 35
Javier Fernandez, Cora Tori, M. Zuccalli (2010)
Lagrangian reduction of nonholonomic discrete mechanical systemsarXiv: Differential Geometry
S. Grillo, E. Padr'on (2015)
A Hamilton–Jacobi Theory for general dynamical systems and integrability by quadratures in symplectic and Poisson manifoldsJournal of Geometry and Physics, 110
E. Hairer, G. Wanner, C. Lubich (2006)
Symplectic Integration of Hamiltonian Systems
P. Balseiro (2013)
The Jacobiator of Nonholonomic Systems and the Geometry of Reduced Nonholonomic BracketsArchive for Rational Mechanics and Analysis, 214
R. McLachlan, C. Scovel (1995)
Equivariant constrained symplectic integrationJournal of Nonlinear Science, 5
E. Martínez (2006)
Variational calculus on Lie algebroidsESAIM: Control, Optimisation and Calculus of Variations, 14
M. Ashbaugh (1996)
Book Review: Introduction to mechanics and symmetry: A basic exposition of classical mechanical systemsBulletin of the American Mathematical Society, 33
M. León, J. Marrero, D. Diego (2008)
Linear almost Poisson structures and Hamilton-Jacobi equation. Applications to nonholonomic MechanicsarXiv: Mathematical Physics
(1994)
Addendum to: Séminaire sur les Équations aux Dérivées Partielles
Sebastián Ferraro, Fernando Jim'enez, D. Diego (2013)
New developments on the geometric nonholonomic integratorNonlinearity, 28
K. Feng, M. Qin (2010)
Symplectic Geometric Algorithms for Hamiltonian Systems
J. Marsden, T. Ratiu, A. Weinstein (1984)
Semidirect products and reduction in mechanicsTransactions of the American Mathematical Society, 281
David Ellis, F. Gay‐Balmaz, Darryl Holm, T. Ratiu (2009)
Lagrange–Poincaré field equationsJournal of Geometry and Physics, 61
(1987)
Groupoï des symplectiques
W. Sarlet, T. Mestdag, E. Martínez (2002)
Lie algebroid structures on a class of affine bundlesJournal of Mathematical Physics, 43
(2010)
Geometric Numerical Integration, vol. 31 of Springer Series in Computational Mathematics
R. Fernandes, J. Ortega, T. Ratiu (2007)
The momentum map in Poisson geometryAmerican Journal of Mathematics, 131
(1973)
With special emphasis on celestial mechanics, Hermann Weyl Lectures, the Institute for Advanced Study
The source, α, is the constant map α(g) = e
J. Marrero, D. Diego, E. Mart'inez (2016)
On the exact discrete Lagrangian function for variational integrators: theory and applicationsarXiv: Differential Geometry
R. McLachlan (1993)
Explicit Lie-Poisson integration and the Euler equations.Physical review letters, 71 19
K. Mackenzie (2005)
General theory of lie groupoids and lie algebroids
Ge Zhong, J. Marsden (1988)
Lie-Poisson Hamilton-Jacobi theory and Lie-Poisson integratorsPhysics Letters A, 133
M. Leok, J. Marsden, A. Weinstein (2005)
A Discrete Theory of Connections on Principal BundlesarXiv: Differential Geometry
The multiplication map m : ((P × P)/G) 2 → (P × P)/G is
J. Marrero, D. Diego, E. Martínez (2005)
Discrete Lagrangian and Hamiltonian mechanics on Lie groupoidsNonlinearity, 19
C. Scovel, A. Weinstein (1994)
Finite dimensional lie-poisson approximations to vlasov-poisson equations†Communications on Pure and Applied Mathematics, 47
(1994)
Solutions of Hamilton–Jacobi equations and symplectic geometry. Ad- dendum to: Séminaire sur les Équations aux Dérivées Partielles
The multiplication is m(g, h) = g · h, for any g and h in G. 1. The source, α : (P × P)/G → M is given by
M. León, J. Marrero, E. Martínez (2004)
Lagrangian submanifolds and dynamics on Lie algebroidsJournal of Physics A, 38
Z. Ge (1990)
Generating functions, Hamilton-Jacobi equations and symplectic groupoids on Poisson manifoldsIndiana University Mathematics Journal, 39
E. Andr'es, Eduardo Guzmán, J. Marrero, T. Mestdag (2014)
Reduced dynamics and Lagrangian submanifolds of symplectic manifoldsJournal of Physics A: Mathematical and Theoretical, 47
R. McLachlan, C. Scovel (1993)
A survey of open problems in symplectic integration
J. Cariñena, Xavier Gràcia, G. Marmo, E. Martínez, M. Muñoz-Lecanda, N. Román-Roy (2009)
Geometric Hamilton-Jacobi theory for nonholonomic dynamical systemsInternational Journal of Geometric Methods in Modern Physics, 07
H. Cendra, J. Marsden, T. Ratiu (2001)
Lagrangian Reduction by Stages
P. Balseiro, N. Sansonetto (2016)
A geometric characterization of certain first integrals for nonholonomic systems with symmetriesSIGMA Symmetry Integr. Geom. Methods Appl., 12
S. Benzel, Z. Ge, C. Scovel (1993)
Elementary construction of higher order Lie-Poisson integratorsPhysics Letters A, 174
V. Zeitlin (1991)
Finite-mode analogs of 2D ideal hydrodynamics: coadjoint orbits and local canonical structurePhysica D: Nonlinear Phenomena, 49
H. Cendra, J. Marsden, S. Pekarsky, T. Ratiu (2003)
Variational principles for Lie-Poisson and Hamilton-Poincaré equationsMoscow Mathematical Journal, 3
J. Moser, A. Veselov (1991)
Discrete versions of some classical integrable systems and factorization of matrix polynomialsCommunications in Mathematical Physics, 139
M. Le'on, D. Diego, M. Vaquero (2015)
Hamilton-Jacobi theory, Symmetries and Coisotropic ReductionarXiv: Mathematical Physics
D. Fairlie, C. Zachos (1989)
Infinite-dimensional algebras, sine brackets, and SU(∞)Physics Letters B, 224
R. Chhabra (2011)
Nonholonomic Hamilton-Jacobi Theory via Chaplygin Hamiltonization
P. Fox (1918)
THE FOUNDATIONS OF MECHANICS.Science, 48 1240
E. Martínez (2001)
Lagrangian Mechanics on Lie AlgebroidsActa Applicandae Mathematica, 67
É. Forest, R. Ruth (1990)
Fourth-order symplectic integrationPhysica D: Nonlinear Phenomena, 43
(1999)
Geometric Models for Noncommutative Alge- bras, vol. 10 of Berkeley Mathematics Lecture Notes
(1983)
A canonical integration technique
T. Ohsawa, Anthony Bloch, M. Leok (2009)
Discrete Hamilton-Jacobi TheorySIAM J. Control. Optim., 49
P. Balseiro, N. Sansonetto (2015)
A Geometric Characterization of Certain First Integrals for Nonholonomic Systems with SymmetriesSymmetry Integrability and Geometry-methods and Applications, 12
J. Moser, D. Saari (1975)
Stable and Random Motions in Dynamical SystemsPhysics Today, 28
(1999)
Introduction to Mechanics and Symmetry, 2nd edn, vol. 17 of Texts in Applied Mathematics
G 2 then ( (g), (h)) ∈ (G ) 2 and 2. (gh) = (g) (h)
P. Channell, J. Scovel (1991)
Integrators for Lie-Poisson or dynamical systemsPhysica D: Nonlinear Phenomena, 50
Z. Ge (1991)
Equivariant symplectic difference schemes and generating functionsPhysica D: Nonlinear Phenomena, 49
T. Ohsawa, A. Bloch (2009)
Nonholonomic Hamilton-Jacobi equation and integrabilityThe Journal of Geometric Mechanics, 1
J. Makazaga, A. Murua (2009)
A new class of symplectic integration schemes based on generating functionsNumerische Mathematik, 113
In this paper we develop a geometric version of the Hamilton–Jacobi equation in the Poisson setting. Specifically, we “geometrize” what is usually called a complete solution of the Hamilton–Jacobi equation. We use some well-known results about symplectic groupoids, in particular cotangent groupoids, as a keystone for the construction of our framework. Our methodology follows the ambitious program proposed by Weinstein (In Mechanics day (Waterloo, ON, 1992), volume 7 of fields institute communications, American Mathematical Society, Providence, 1996) in order to develop geometric formulations of the dynamical behavior of Lagrangian and Hamiltonian systems on Lie algebroids and Lie groupoids. This procedure allows us to take symmetries into account, and, as a by-product, we recover results from Channell and Scovel (Phys D 50(1):80–88, 1991), Ge (Indiana Univ. Math. J. 39(3):859–876, 1990), Ge and Marsden (Phys Lett A 133(3):134–139, 1988), but even in these situations our approach is new. A theory of generating functions for the Poisson structures considered here is also developed following the same pattern, solving a longstanding problem of the area: how to obtain a generating function for the identity transformation and the nearby Poisson automorphisms of Poisson manifolds. A direct application of our results gives the construction of a family of Poisson integrators, that is, integrators that conserve the underlying Poisson geometry. These integrators are implemented in the paper in benchmark problems. Some conclusions, current and future directions of research are shown at the end of the paper.
Archive for Rational Mechanics and Analysis – Springer Journals
Published: Jun 9, 2017
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