Second order symmetry operators
arXiv:1402.6252 · doi:10.1088/0264-9381/31/13/135015
Abstract
Using systematic calculations in spinor language, we obtain simple descriptions of the second order symmetry operators for the conformal wave equation, the Dirac-Weyl equation and the Maxwell equation on a curved four dimensional Lorentzian manifold. The conditions for existence of symmetry operators for the different equations are seen to be related. Computer algebra tools have been developed and used to systematically reduce the equations to a form which allows geometrical interpretation.
34 pages. Mathematica notebook available from http://hdl.handle.net/10283/541
References in corpus (1)
Cited by in corpus (20)
- New identities for linearized gravity on the Kerr spacetime
- Decay of solutions to the Maxwell equation on the Schwarzschild background
- Symmetries of linearized gravity from adjoint operators
- Compatibility complex for black hole spacetimes
- Symmetries of supergravity backgrounds in six dimensions
- Two-dimensional twistor manifolds and Teukolsky operators
- Invariant prolongation of the Killing tensor equation
- Second order symmetry operators for the massive Dirac equation
- Conserved quantities and integrability for massless spinning particles in general relativity
- Decay of Maxwell Fields on Reissner-Nordstrøm-de Sitter Black Holes
- A new tensorial conservation law for Maxwell fields on the Kerr background
- First Order Symmetry Operators for the Linearized Field Equation of Metric Perturbations
- Gluing for the constraints for higher spin fields
- A space-time calculus based on symmetric 2-spinors
- On the geometry of Petrov type II spacetimes
- Wave and Dirac equations on manifolds
- Homogeneous Symmetry Operators in Kerr--NUT--AdS Spacetimes
- Conformally equivariant quantization for spinning particles
- Perturbations of Kerr with approximate Killing spinors -- Wave version
- Symmetry operators for the conformal wave equation in rotating black hole spacetimes