Optimal Constraint Projection for Hyperbolic Evolution Systems
arXiv:gr-qc/0407011 · doi:10.1103/PhysRevD.70.084017
Abstract
Techniques are developed for projecting the solutions of symmetric hyperbolic evolution systems onto the constraint submanifold (the constraint-satisfying subset of the dynamical field space). These optimal projections map a field configuration to the ``nearest'' configuration in the constraint submanifold, where distances between configurations are measured with the natural metric on the space of dynamical fields. The construction and use of these projections is illustrated for a new representation of the scalar field equation that exhibits both bulk and boundary generated constraint violations. Numerical simulations on a black-hole background show that bulk constraint violations cannot be controlled by constraint-preserving boundary conditions alone, but are effectively controlled by constraint projection. Simulations also show that constraint violations entering through boundaries cannot be controlled by constraint projection alone, but are controlled by constraint-preserving boundary conditions. Numerical solutions to the pathological scalar field system are shown to converge to solutions of a standard representation of the scalar field equation when constraint projection and constraint-preserving boundary conditions are used together.
final version with minor changes; 16 pages, 14 figures
Cited by in corpus (43)
- Numerical Relativity Using a Generalized Harmonic Decomposition
- A New Generalized Harmonic Evolution System
- High-accuracy waveforms for binary black hole inspiral, merger, and ringdown
- Spectral Methods for Numerical Relativity
- Solving Einstein's Equations With Dual Coordinate Frames
- Continuum and Discrete Initial-Boundary-Value Problems and Einstein's Field Equations
- Numerical binary black hole mergers in dynamical Chern-Simons: I. Scalar field
- Simulations of non-equal mass black hole binaries with spectral methods
- Boundary Conditions for the Einstein Evolution System
- Conformally curved binary black hole initial data including tidal deformations and outgoing radiation
- Comparison of high-accuracy numerical simulations of black-hole binaries with stationary phase post-Newtonian template waveforms for Initial and Advanced LIGO
- Improved initial data for black hole binaries by asymptotic matching of post-Newtonian and perturbed black hole solutions
- Tetrad formalism for numerical relativity on conformally compactified constant mean curvature hypersurfaces
- Adaptive Mesh Refinement for Coupled Elliptic-Hyperbolic Systems
- Towards a gauge-polyvalent Numerical Relativity code
- Hyperboloidal evolution of test fields in three spatial dimensions
- Revisiting Event Horizon Finders
- Gauge Drivers for the Generalized Harmonic Einstein Equations
- Rotating star initial data for a constrained scheme in numerical relativity
- Numerical simulations of black hole-neutron star mergers in scalar-tensor gravity
- Absorbing boundary conditions for Einstein's field equations
- Classical and quantum general relativity: a new paradigm
- Solving Partial Differential Equations Numerically on Manifolds with Arbitrary Spatial Topologies
- Algebraic stability analysis of constraint propagation
- Numerical solutions of Einstein's equations for cosmological spacetimes with spatial topology S3 and symmetry group U(1)
- Implicit-explicit (IMEX) evolution of single black holes
- IMEX evolution of scalar fields on curved backgrounds
- Evolution of scalar fields surrounding black holes on compactified constant mean curvature hypersurfaces
- Axisymmetric Numerical Relativity
- Mixed Hyperbolic - Second-Order Parabolic Formulations of General Relativity
- Efficient simulations of high-spin black holes with a new gauge
- Worldtube excision method for intermediate-mass-ratio inspirals: scalar-field model in 3+1 dimensions
- Numerical performance of the parabolized ADM (PADM) formulation of General Relativity
- Worldtube excision method for intermediate-mass-ratio inspirals: scalar-field toy model
- Boundary conditions for the Einstein-Christoffel formulation of Einstein's equations
- Constraint Preserving Boundary Conditions for Hyperbolic Formulations of Einstein's Equations
- Hamiltonian Relaxation
- Well-posed constrained evolution of 3+1 formulations of General Relativity
- Constraint Damping in First-Order Evolution Systems for Numerical Relativity
- Modifying the Einstein Equations off the Constraint Hypersuface
- Mathematical general relativity: a sampler
- The Emergence of Gravitational Wave Science: 100 Years of Development of Mathematical Theory, Detectors, Numerical Algorithms, and Data Analysis Tools
- Solving the Einstein Constraints Numerically on Compact Three-Manifolds Using Hyperbolic Relaxation