Modeling Gravitational Recoil Using Numerical Relativity
arXiv:1011.2210 · doi:10.1088/0264-9381/28/11/114015
Abstract
We review the developments in modeling gravitational recoil from merging black-hole binaries and introduce a new set of 20 simulations to test our previously proposed empirical formula for the recoil. The configurations are chosen to represent generic binaries with unequal masses and precessing spins. Results of these simulations indicate that the recoil formula is accurate to within a few km/s in the similar mass-ratio regime for the out-of-plane recoil.
corrections to text, 11 pages, 1 figure
References in corpus (75)
- Evolution of Binary Black Hole Spacetimes
- Accurate Evolutions of Orbiting Black-Hole Binaries Without Excision
- Gravitational wave extraction from an inspiraling configuration of merging black holes
- Evolutions in 3D numerical relativity using fixed mesh refinement
- Large Merger Recoils and Spin Flips From Generic Black-Hole Binaries
- A simple construction of initial data for multiple black holes
- Maximum gravitational recoil
- Inspiral, merger and ring-down of equal-mass black-hole binaries
- Total recoil: the maximum kick from nonspinning black-hole binary inspiral
- Inspiral, merger and ringdown of unequal mass black hole binaries: a multipolar analysis
- High-accuracy comparison of numerical relativity simulations with post-Newtonian expansions
- A single-domain spectral method for black hole puncture data
- Supermassive recoil velocities for binary black-hole mergers with antialigned spins
- Spinning-black-hole binaries: The orbital hang up
- A Fast Apparent-Horizon Finder for 3-Dimensional Cartesian Grids in Numerical Relativity
- Introduction to Isolated Horizons in Numerical Relativity
- High-accuracy waveforms for binary black hole inspiral, merger, and ringdown
- Toward faithful templates for non-spinning binary black holes using the effective-one-body approach
- Recoil Velocities from Equal-Mass Binary-Black-Hole Mergers
- An improved analytical description of inspiralling and coalescing black-hole binaries
- Recoil velocities from equal-mass binary black-hole mergers: a systematic investigation of spin-orbit aligned configurations
- Getting a kick out of numerical relativity
- Estimating the final spin of a binary black hole coalescence
- Second order gauge invariant gravitational perturbations of a Kerr black hole
- Predicting the direction of the final spin from the coalescence of two black holes
- Spin Flips and Precession in Black-Hole-Binary Mergers
- Exploring black hole superkicks
- Gravitational recoil from spinning binary black hole mergers
- Accurate black hole evolutions by fourth-order numerical relativity
- Simulations of Binary Black Hole Mergers Using Spectral Methods
- High-spin binary black hole mergers
- Modeling kicks from the merger of generic black-hole binaries
- Where post-Newtonian and numerical-relativity waveforms meet
- Comparing Effective-One-Body gravitational waveforms to accurate numerical data
- A data-analysis driven comparison of analytic and numerical coalescing binary waveforms: nonspinning case
- The final mass and spin of black hole mergers
- Remnant Masses, Spins and Recoils from the Merger of Generic Black-Hole Binaries
- Unequal Mass Binary Black Hole Plunges and Gravitational Recoil
- Consistency of post-Newtonian waveforms with numerical relativity
- The last orbit of binary black holes
- Anatomy of the binary black hole recoil: A multipolar analysis
- Further insight into gravitational recoil
- Modeling kicks from the merger of non-precessing black-hole binaries
- Binary black hole mergers: large kicks for generic spin orientations
- Binary Black Holes: Spin Dynamics and Gravitational Recoil
- Spin-orbit interactions in black-hole binaries
- Comparisons of eccentric binary black hole simulations with post-Newtonian models
- Comparison between numerical-relativity and post-Newtonian waveforms from spinning binaries: the orbital hang-up case
- Orbital Evolution of Extreme-Mass-Ratio Black-Hole Binaries with Numerical Relativity
- Understanding the "anti-kick" in the merger of binary black holes
- Spin Diagrams for Equal-Mass Black-Hole Binaries with Aligned Spins
- Foundations of multiple black hole evolutions
- Extra-Large Remnant Recoil Velocities and Spins from Near-Extremal-Bowen-York-Spin Black-Hole Binaries
- Black-hole binary simulations: the mass ratio 10:1
- Superkicks in Hyperbolic Encounters of Binary Black Holes
- Intermediate-mass-ratio black hole binaries: intertwining numerical and perturbative techniques
- Modeling gravitational recoil from precessing highly-spinning unequal-mass black-hole binaries
- Binary black hole merger: symmetry and the spin expansion
- An explicit harmonic code for black-hole evolution using excision
- Modelling the final state from binary black-hole coalescences
- The spin expansion for binary black hole merger: new predictions and future directions
- A practical formula for the radiated angular momentum
- Statistical studies of Spinning Black-Hole Binaries
- Can binary mergers produce maximally spinning black holes?
- A General Formula for Black Hole Gravitational Wave Kicks
- Momentum flow in black-hole binaries: II. Numerical simulations of equal-mass, head-on mergers with antiparallel spins
- Modeling maximum astrophysical gravitational recoil velocities
- Binary black holes on a budget: Simulations using workstations
- Comparison between numerical relativity and a new class of post-Newtonian gravitational-wave phase evolutions: the non-spinning equal-mass case
- Recoiling from a kick in the head-on collision of spinning black holes
- Gravitational-Wave Recoil from the Ringdown Phase of Coalescing Black Hole Binaries
- Momentum Flow in Black Hole Binaries: I. Post-Newtonian Analysis of the Inspiral and Spin-Induced Bobbing
- Post-merger electromagnetic emissions from disks perturbed by binary black holes
- Multipole Analysis of Kicks in Collision of Binary Black Holes
- A hybrid method for understanding black-hole mergers: head-on case
Cited by in corpus (23)
- Gravitational Recoil From Accretion-Aligned Black-Hole Binaries
- Gravitational waves from spinning black hole-neutron star binaries: dependence on black hole spins and on neutron star equations of state
- Black hole-neutron star mergers at realistic mass ratios: Equation of state and spin orientation effects
- Ram-pressure stripping of a kicked Hill sphere: Prompt electromagnetic emission from the merger of stellar mass black holes in an AGN accretion disk
- Remnant mass, spin, and recoil from spin aligned black-hole binaries
- Nonlinear Gravitational Recoil from the Mergers of Precessing Black-Hole Binaries
- Numerical Relativity of Compact Binaries in the 21st Century
- Alignment of supermassive black hole binary orbits and spins
- Black hole-neutron star mergers for 10 solar mass black holes
- Modeling the remnant mass, spin, and recoil from unequal-mass, precessing black-hole binaries: The Intermediate Mass Ratio Regime
- Gravitational wave sources in the era of multi-frequency gravitational wave astronomy
- Black-hole horizons as probes of black-hole dynamics I: post-merger recoil in head-on collisions
- Resonantly enhanced kicks from equatorial small mass-ratio inspirals
- Accuracy Issues for Numerical Waveforms
- Precession-tracking coordinates for simulations of compact-object-binaries
- Adding equatorial-asymmetric effects for spin-precessing binaries into the SEOBNRv5PHM waveform model
- Sowing the seeds of massive black holes in small galaxies: Young clusters as the building blocks of Ultra-Compact-Dwarf Galaxies
- Wandering and escaping: recoiling massive black holes in cosmological simulations
- Improved fast-rotating black hole evolution simulations with modified Baumgarte-Shapiro-Shibata-Nakamura formulation
- Probing the formation of the seeds of supermassive black holes with gravitational waves
- Modifications for numerical stability of black hole evolution
- Analytical solutions for weak black hole kicks
- Accurate models for recoil velocity distribution in black hole mergers with comparable to extreme mass-ratios and their astrophysical implications