AbstractThe connection between closed Newton–Cotes differential methods and symplectic integrators is considered in this paper. Several one step symplectic integrators have been developed based on symplectic geometry. However, multistep symplectic integrators have seldom been investigated. Zhu et al. (J. Chem. Phys. 104 (1996) 2275) converted open Newton–Cotes differential methods into a multilayer symplectic structure. Also, Chiou and Wu (J. Chem. Phys. 107 (1997) 6894) have written on the construction of multistep symplectic integrators based on the open Newton–Cotes integration methods. In this work we examine the closed Newton–Cotes formulae and we write them as symplectic multilayer structures. We apply the symplectic schemes in order ...
Multi-derivative one-step methods based upon Euler–Maclaurin integration formulae are considered for...
Symplectic (area-preserving) integrators for Hamiltonian ordinary differential equations have shown ...
The purpose of this paper is the derivation of multivalue numerical methods for Hamiltonian problems...
AbstractIn this paper the numerical integration of integrable Hamiltonian systems is considered. Sym...
Multisymplectic integration is a relatively new addition to the field of geometric integration, whi...
The long-time integration of Hamiltonian differential equations requires special numerical methods. ...
Os sistemas Hamiltonianos formam uma das classes mais importantes de equações diferenciais. Além de ...
International audienceWe introduce here a class of symplectic schemes for the numerical integration ...
A useful method for understanding discretization error in the numerical solution of ODEs is to compa...
For the numerical treatment of Hamiltonian differential equations, symplectic integrators are the mo...
Modified Hamiltonians are used in the field of geometric numerical integration to show that symplect...
Symplectic Runge-Kutta schemes for integration of general Hamiltonian systems are implicit. In pract...
For the numerical treatment of Hamiltonian differential equations, symplectic integra-tors are the m...
Abstract: Symplectic integration methods based on operator splitting are well established in many br...
International audienceFor general optimal control problems, Pontryagin's maximum principle gives nec...
Multi-derivative one-step methods based upon Euler–Maclaurin integration formulae are considered for...
Symplectic (area-preserving) integrators for Hamiltonian ordinary differential equations have shown ...
The purpose of this paper is the derivation of multivalue numerical methods for Hamiltonian problems...
AbstractIn this paper the numerical integration of integrable Hamiltonian systems is considered. Sym...
Multisymplectic integration is a relatively new addition to the field of geometric integration, whi...
The long-time integration of Hamiltonian differential equations requires special numerical methods. ...
Os sistemas Hamiltonianos formam uma das classes mais importantes de equações diferenciais. Além de ...
International audienceWe introduce here a class of symplectic schemes for the numerical integration ...
A useful method for understanding discretization error in the numerical solution of ODEs is to compa...
For the numerical treatment of Hamiltonian differential equations, symplectic integrators are the mo...
Modified Hamiltonians are used in the field of geometric numerical integration to show that symplect...
Symplectic Runge-Kutta schemes for integration of general Hamiltonian systems are implicit. In pract...
For the numerical treatment of Hamiltonian differential equations, symplectic integra-tors are the m...
Abstract: Symplectic integration methods based on operator splitting are well established in many br...
International audienceFor general optimal control problems, Pontryagin's maximum principle gives nec...
Multi-derivative one-step methods based upon Euler–Maclaurin integration formulae are considered for...
Symplectic (area-preserving) integrators for Hamiltonian ordinary differential equations have shown ...
The purpose of this paper is the derivation of multivalue numerical methods for Hamiltonian problems...