We define partial differential (PD in the following), i.e., field theoretic analogues of Hamiltonian systems on abstract symplectic manifolds and study their main properties, namely, PD Hamilton equations, PD Noether theorem, PD Poisson bracket, etc.. Unlike in standard multisymplectic approach to Hamiltonian field theory, in our formalism, the geometric structure (kinematics) and the dynamical information on the phase space" appear as just different components of one single geometric object
This review paper is devoted to presenting the standard multisymplectic formulation for describing g...
The chapter will illustrate how concepts in differential geometry arise naturally in different area...
This paper contains several results concerning the role of symmetries and singularities in the math...
We define partial differential (PD in the following), i.e., field theoretic analogues of Hamiltonian...
In this introduction, we first recall the basic phase space structures involved in Hamiltonian syste...
A method to construct Hamiltonian theories for systems of both ordinary and partial differential equ...
Using the geometric language of modern differential geometry, we discuss different methods for obtai...
In a recent article, certain underdetermined linear systems of partial dif-ferential equations conne...
Algebraic Geometry: Algebraic Complements, Affine spaces, Differential Manifolds, Grassmann Manifo...
Abstract In this article we consider partitioned Runge-Kutta (PRK) methods for Hamiltonian partial d...
We consider Hamiltonian systems in first-order multisymplectic field theories. First we review the c...
We sketch out a new geometric framework to construct Hamiltonian operators for generic, non-evoluti...
This work contains a brief and elementary exposition of the foundations of Poisson and symplectic ge...
This review paper is devoted to presenting the standard multisymplectic formulation for describing ...
Many partial differential equations arising in physics can be seen as infinite dimensional Hamiltoni...
This review paper is devoted to presenting the standard multisymplectic formulation for describing g...
The chapter will illustrate how concepts in differential geometry arise naturally in different area...
This paper contains several results concerning the role of symmetries and singularities in the math...
We define partial differential (PD in the following), i.e., field theoretic analogues of Hamiltonian...
In this introduction, we first recall the basic phase space structures involved in Hamiltonian syste...
A method to construct Hamiltonian theories for systems of both ordinary and partial differential equ...
Using the geometric language of modern differential geometry, we discuss different methods for obtai...
In a recent article, certain underdetermined linear systems of partial dif-ferential equations conne...
Algebraic Geometry: Algebraic Complements, Affine spaces, Differential Manifolds, Grassmann Manifo...
Abstract In this article we consider partitioned Runge-Kutta (PRK) methods for Hamiltonian partial d...
We consider Hamiltonian systems in first-order multisymplectic field theories. First we review the c...
We sketch out a new geometric framework to construct Hamiltonian operators for generic, non-evoluti...
This work contains a brief and elementary exposition of the foundations of Poisson and symplectic ge...
This review paper is devoted to presenting the standard multisymplectic formulation for describing ...
Many partial differential equations arising in physics can be seen as infinite dimensional Hamiltoni...
This review paper is devoted to presenting the standard multisymplectic formulation for describing g...
The chapter will illustrate how concepts in differential geometry arise naturally in different area...
This paper contains several results concerning the role of symmetries and singularities in the math...