A method for constructing general null Lagrangians and their higher harmonics is presented for dynamical systems with one degree of freedom. It is shown that these Lagrangians can be used to obtain non-standard Lagrangians, which give equations of motion for the law of inertia and some dissipative dynamical systems. The necessary condition for deriving equations of motion by using null Lagrangians is presented, and it is demonstrated that this condition plays the same role for null Lagrangians as the Euler-Lagrange equation plays for standard and non-standard Lagrangians. The obtained results and their applications establish a novel role of null Lagrangians in classical dynamics
A Lagrangian form of dynamic equations for nonlinear nonholonomic constraints was studied by the firs...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...
New null Lagrangians and gauge functions are derived and they are called nonstandard because their f...
AbstractIn this paper, we show how to study the evolution of a complex system, given imprecise knowl...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The Lagrangian and the Generalized Linear Momentum are expressed in terms of a Constant of Motion of...
International audienceThis paper deals with mechanical systems subjected to a general class of non-i...
International audienceThis paper deals with mechanical systems subjected to a general class of non-i...
We describe a recipe to generate “nonlocal” constants of motion for ODE Lagrangian systems. As a sam...
Abstract: The classical and relativistic one-particle Lagrangiens depend on position and v...
We describe a recipe to generate ``nonlocal'' constants of motion for ODE Lagrangian systems. As a s...
A Lagrangian form of dynamic equations for nonlinear nonholonomic constraints was studied by the firs...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...
New null Lagrangians and gauge functions are derived and they are called nonstandard because their f...
AbstractIn this paper, we show how to study the evolution of a complex system, given imprecise knowl...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The dynamics of Lagrangian systems is formulated with a differential geometric approach and accordin...
The Lagrangian and the Generalized Linear Momentum are expressed in terms of a Constant of Motion of...
International audienceThis paper deals with mechanical systems subjected to a general class of non-i...
International audienceThis paper deals with mechanical systems subjected to a general class of non-i...
We describe a recipe to generate “nonlocal” constants of motion for ODE Lagrangian systems. As a sam...
Abstract: The classical and relativistic one-particle Lagrangiens depend on position and v...
We describe a recipe to generate ``nonlocal'' constants of motion for ODE Lagrangian systems. As a s...
A Lagrangian form of dynamic equations for nonlinear nonholonomic constraints was studied by the firs...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...
International audienceThis paper deals with the foundations of analytical dynamics. It obtains the e...