Representation of Hamiltonian Formalism in Dissipative Mechanical System
Timi Fahria Haque, Eliyas Karim
Abstract
Timi Fahria Haque, Eliyas Karim
Abstract
Hamiltonian mechanics is the root of classical mechanics. Hamiltonian function is the modified version of Lagrangian function which is of the first order differential equations with generalized coordinates, generalized momentum and time. So, Hamiltonian formulations play an important role in classical mechanics as well as in mechanical systems. In this study, we have established Hamiltonian formalism for dissipative system. We have demonstrated that, whether the class of dissipative mechanical system has an analytical solution or not, it can be represented as a Hamiltonian formalism. Dissipative system deals with the Damping force, Mechanical energy, Principle of least action, First integral, Jacobian matrix and the Non-conservative system deals with Fractional derivatives, Hamiltonian systems, non-conservative systems and Laplace transform.
A significance statement is not available in the OpenAlex record.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
Hamiltonian mechanics is the root of classical mechanics. Hamiltonian function is the modified version of Lagrangian function which is of the first order differential equations with generalized coordinates, generalized momentum and time. So, Hamiltonian formulations play an important role in classical mechanics as well as in mechanical systems. In this study, we have established Hamiltonian formalism for dissipative system. We have demonstrated that, whether the class of dissipative mechanical system has an analytical solution or not, it can be represented as a Hamiltonian formalism. Dissipative system deals with the Damping force, Mechanical energy, Principle of least action, First integral, Jacobian matrix and the Non-conservative system deals with Fractional derivatives, Hamiltonian systems, non-conservative systems and Laplace transform.
Key concepts: Covariant Hamiltonian field theory, Dissipative system, Hamiltonian optics, Hamiltonian mechanics, Classical mechanics, Mechanical system, Hamiltonian (control theory), Superintegrable Hamiltonian system