Neagu, Mircea.

Dual Jet Geometrization for Time-Dependent Hamiltonians and Applications [electronic resource] / by Mircea Neagu, Alexandru Oană. - 1st ed. 2022. - XII, 87 p. 1 illus. online resource. - Synthesis Lectures on Mathematics & Statistics, 1938-1751 . - Synthesis Lectures on Mathematics & Statistics, .

The dual 1-jet space -- N-linear connections -- h-Normal N-linear connections -- Distinguished geometrization of the time-dependent Hamiltonians of momenta -- The time-dependent Hamiltonian of the least squares variational method -- Time-dependent Hamiltonian of electrodynamics -- The geometry of conformal Hamiltonian of the time-dependent coupled harmonic oscillators -- On the dual jet conformal Minkowski Hamiltonian.

This book studies a category of mathematical objects called Hamiltonians, which are dependent on both time and momenta. The authors address the development of the distinguished geometrization on dual 1-jet spaces for time-dependent Hamiltonians, in contrast with the time-independent variant on cotangent bundles. Two parts are presented to include both geometrical theory and the applicative models: Part One: Time-dependent Hamilton Geometry and Part Two: Applications to Dynamical Systems, Economy and Theoretical Physics. The authors present 1-jet spaces and their duals as appropriate fundamental ambient mathematical spaces used to model classical and quantum field theories. In addition, the authors present dual jet Hamilton geometry as a distinct metrical approach to various interdisciplinary problems. Provides interdisciplinary geometric models in differential geometry, analytical mechanics, dynamical systems, electrodynamics, economics, and theoretical and mathematical physics Structured in two parts to present both the geometrical theory and the applicative models Studies the differential geometry of spaces in which the metric used for measuring changes in function of time and momentum.

9783031088858

10.1007/978-3-031-08885-8 doi


Geometry, Differential.
Mathematical physics.
Dynamical systems.
Dynamics.
Nonlinear theories.
Electrodynamics.
Differential Geometry.
Mathematical Physics.
Dynamical Systems.
Applied Dynamical Systems.
Classical Electrodynamics.

QA641-670

516.36