Approach to the separatrix with eccentric orbits
arXiv:2412.04249 · doi:10.21468/SciPostPhysCore.8.3.059
Abstract
Eccentric binary compact mergers are prime targets of current and future gravitational wave observatories. In the small mass ratio expansion, post-adiabatic inspirals have been modeled up to the separatrix, where first-principle modeling currently ends. In this paper, we derive the analytic late time solution to the adiabatic inspiral in terms of self-force coefficients at the separatrix. We identify the role of the Lambert function as a key mathematical ingredient in the approach to the separatrix.
38 pages, 11 figures
References in corpus (36)
- Observation of Gravitational Waves from a Binary Black Hole Merger
- Two timescale analysis of extreme mass ratio inspirals in Kerr. I. Orbital Motion
- Gravitational wave snapshots of generic extreme mass ratio inspirals
- FastEMRIWaveforms: New tools for millihertz gravitational-wave data analysis
- Analytical solutions of bound timelike geodesic orbits in Kerr spacetime
- Gravitational self-force on a particle in eccentric orbit around a Schwarzschild black hole
- Evolution of inspiral orbits around a Schwarzschild black hole
- Adiabatic waveforms for extreme mass-ratio inspirals via multivoice decomposition in time and frequency
- Precession effect of the gravitational self-force in a Schwarzschild spacetime and the effective one-body formalism
- Beyond the geodesic approximation: conservative effects of the gravitational self-force in eccentric orbits around a Schwarzschild black hole
- Osculating orbits in Schwarzschild spacetime, with an application to extreme mass-ratio inspirals
- Two-timescale evolution of extreme-mass-ratio inspirals: waveform generation scheme for quasicircular orbits in Schwarzschild spacetime
- Black hole perturbation theory and gravitational self-force
- The location of the last stable orbit in Kerr spacetime
- Forced motion near black holes
- Fast Self-forced Inspirals
- Effective one-body model for extreme-mass-ratio spinning binaries on eccentric equatorial orbits: testing radiation reaction and waveform
- Extreme mass ratio inspirals on the equatorial plane in the adiabatic order
- A Fast Frequency-Domain Algorithm for Gravitational Self-Force: I, Circular Orbits in Schwarzschild Spacetime
- Faithful effective-one-body waveform of small-mass-ratio coalescing black hole binaries: the eccentric, nonspinning, case
- Eccentric self-forced inspirals into a rotating black hole
- Fast and Fourier: Extreme Mass Ratio Inspiral Waveforms in the Frequency Domain
- New Avenue for Accurate Analytical Waveforms and Fluxes for Eccentric Compact Binaries
- Transition from adiabatic inspiral to plunge into a spinning black hole
- Inspiral-inherited ringdown tails
- Critical phenomena at the threshold of immediate merger in binary black hole systems: the extreme mass ratio case
- Self-force framework for transition-to-plunge waveforms
- Self-consistent adiabatic inspiral and transition motion
- A complete characterisation of the orbital shapes of the non-circular Kerr geodesic solutions with circular orbit constants of motion
- Applying the effective-source approach to frequency-domain self-force calculations for eccentric orbits
- Phenomenology and origin of late-time tails in eccentric binary black hole mergers
- The transition from adiabatic inspiral to geodesic plunge for a compact object around a massive Kerr black hole: Generic orbits
- A note on the conversion of orbital angles for extreme mass ratio inspirals
- Asymptotically matched quasi-circular inspiral and transition-to-plunge in the small mass ratio expansion
- Inspirals from the innermost stable circular orbit of Kerr black holes: Exact solutions and universal radial flow
- Transition from adiabatic inspiral to plunge for eccentric binaries
Cited by in corpus (4)
- Post-adiabatic waveform-generation framework for asymmetric precessing binaries
- Peaking into the abyss: Characterizing the merger of equatorial-eccentric-geodesic plunges in rotating black holes
- Constants of motion in gravitational self-force theory
- Particles with precessing spin in Kerr spacetime: analytic solutions for eccentric orbits and homoclinic motion near the equatorial plane