A new form of the dynamical equations of vacuum general relativity is proposed. This form involves a new Hamiltonian structure and non canonical variables. The new field variables are the electric field E and the magnetic field of A from the Ashtekar representation of the (complex) gravitational phase space. The Poisson brackets between functionals of the field, which emerge from this framework, are compatible with the constraints satisfied by the field variables. The quantization is briefly outlined
A theory has been presented previously in which the geometrical structure of a real four-dimensional...
The important classical Ampère’s and Lorentz laws derivations are revisited and their relationships ...
We rederive the results of our companion paper, for matching spacetime and internal signa-ture, by a...
The Hamiltonian approach to General Relativity is developed similarly to the Wheeler-DeWitt Hamilton...
By considering the Einstein vacuum field equations linearized about the Minkowski metric, the evolut...
AbstractWe study the transformation leading from Arnowitt, Deser, Misner (ADM) Hamiltonian formulati...
This is a substantially expanded version of a chapter-contribution to "The Springer Handbook of Spac...
Change and local spatial variation are missing in Hamiltonian General Relativity according to the mo...
The problem of the dynamical structure and definition of energy for the classical general theory of ...
Phase space of General Relativity is extended to a Poisson manifold by inclusion of the determinant ...
We show that the evolution equations for a perfect fluid coupled to general relativity in a general...
We derive the Hamiltonian structures of three theories: non-relativistic, special-relativistic, and ...
The structure of the Poisson-brackets algebra of constraints of general relativity is reexamined usi...
Élie Cartan’s invariant integral formalism is extended to gauge field theory, including general rela...
Two different Hamiltonian formulations of the metric gravity are discussed and applied to describe a...
A theory has been presented previously in which the geometrical structure of a real four-dimensional...
The important classical Ampère’s and Lorentz laws derivations are revisited and their relationships ...
We rederive the results of our companion paper, for matching spacetime and internal signa-ture, by a...
The Hamiltonian approach to General Relativity is developed similarly to the Wheeler-DeWitt Hamilton...
By considering the Einstein vacuum field equations linearized about the Minkowski metric, the evolut...
AbstractWe study the transformation leading from Arnowitt, Deser, Misner (ADM) Hamiltonian formulati...
This is a substantially expanded version of a chapter-contribution to "The Springer Handbook of Spac...
Change and local spatial variation are missing in Hamiltonian General Relativity according to the mo...
The problem of the dynamical structure and definition of energy for the classical general theory of ...
Phase space of General Relativity is extended to a Poisson manifold by inclusion of the determinant ...
We show that the evolution equations for a perfect fluid coupled to general relativity in a general...
We derive the Hamiltonian structures of three theories: non-relativistic, special-relativistic, and ...
The structure of the Poisson-brackets algebra of constraints of general relativity is reexamined usi...
Élie Cartan’s invariant integral formalism is extended to gauge field theory, including general rela...
Two different Hamiltonian formulations of the metric gravity are discussed and applied to describe a...
A theory has been presented previously in which the geometrical structure of a real four-dimensional...
The important classical Ampère’s and Lorentz laws derivations are revisited and their relationships ...
We rederive the results of our companion paper, for matching spacetime and internal signa-ture, by a...