Hamiltonian approach to GR - Part 1: covariant theory of classical gravity
arXiv:1609.04426 · doi:10.1140/epjc/s10052-017-4854-1
Abstract
A challenging issue in General Relativity concerns the determination of the manifestly-covariant continuum Hamiltonian structure underlying the Einstein field equations and the related formulation of the corresponding covariant Hamilton-Jacobi theory. The task is achieved by adopting a synchronous variational principle requiring distinction between the prescribed deterministic metric tensor solution of the Einstein field equations which determines the geometry of the background space-time and suitable variational fields obeying an appropriate set of continuum Hamilton equations, referred to here as GR-Hamilton equations It is shown that a prerequisite for reaching such a goal is that of casting the same equations in evolutionary form by means of a Lagrangian parametrization for a suitably-reduced canonical state. As a result, the corresponding Hamilton-Jacobi theory is established in manifestly-covariant form. Physical implications of the theory are discussed. These include the investigation of the structural stability of the GR-Hamilton equations with respect to vacuum solutions of the Einstein equations, assuming that wave-like perturbations are governed by the canonical evolution equations.
References in corpus (25)
- Canonical Structure of Classical Field Theory in the Polymomentum Phase Space
- Relativistic magnetohydrodynamics in dynamical spacetimes: A new AMR implementation
- Emergent Gravity Paradigm: Recent Progress
- Bi-metric Gravity and "Dark Matter"
- Exact Solutions with Noncommutative Symmetries in Einstein and Gauge Gravity
- A Gravitational Entropy Proposal
- The Poisson Bracket for Poisson Forms in Multisymplectic Field Theory
- Geometry of Lagrangian First-order Classical Field Theories
- Covariant Hamiltonian Field Theory
- A Bi-Metric Theory with Exchange Symmetry
- Off-Diagonal Deformations of Kerr Black Holes in Einstein and Modified Massive Gravity and Higher Dimensions
- Parametric Nonholonomic Frame Transforms and Exact Solutions in Gravity
- Charged multifluids in general relativity
- Hamiltonian approach to GR - Part 2: covariant theory of quantum gravity
- On General Solutions of Einstein Equations
- Synchronous Lagrangian variational principles in General Relativity
- Generating vorticity and magnetic fields in plasmas in general relativity: spacetime curvature drive
- Hamiltonian formulation for the classical EM radiation-reaction problem: application to the kinetic theory for relativistic collisionless plasmas
- On Relativistic Generalization of Perelman's W-entropy and Statistical Thermodynamic Description of Gravitational Fields
- Exact solution of the EM radiation-reaction problem for classical finite-size and Lorentzian charged particles
- Bimetric Gravity Theory, Varying Speed of Light and the Dimming of Supernovae
- Manifest Covariant Hamiltonian Theory of General Relativity
- p-Mechanics as a Physical Theory. An Introduction
- Decoupling of Field Equations in Einstein and Modified Gravity
- How Emergent is Gravity?
Cited by in corpus (8)
- Hamiltonian approach to GR - Part 2: covariant theory of quantum gravity
- Multisymplectic unified formalism for Einstein-Hilbert Gravity
- Quantum-wave equation and Heisenberg inequalities of covariant quantum gravity
- Generalized Lagrangian Path approach to manifestly-covariant quantum gravity theory
- New multisymplectic approach to the Metric-Affine (Einstein-Palatini) action for gravity
- Space-time second-quantization effects and the quantum origin of cosmological constant in covariant quantum gravity
- Measures of distance in quantum mechanics
- Multisymplectic Formalism for Cubic Horndeski Theories