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Targeted numerical simulations of binary black holes for GW170104

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arxiv 1712.05836 v2 pith:MZKWH2N4 submitted 2017-12-15 gr-qc astro-ph.GA

classification gr-qcastro-ph.GA
keywords simulationsgw170104binaryligonumericalapproximateblackdemonstrate
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In response to LIGO's observation of GW170104, we performed a series of full numerical simulations of binary black holes, each designed to replicate likely realizations of its dynamics and radiation. These simulations have been performed at multiple resolutions and with two independent techniques to solve Einstein's equations. For the nonprecessing and precessing simulations, we demonstrate the two techniques agree mode by mode, at a precision substantially in excess of statistical uncertainties in current LIGO's observations. Conversely, we demonstrate our full numerical solutions contain information which is not accurately captured with the approximate phenomenological models commonly used to infer compact binary parameters. To quantify the impact of these differences on parameter inference for GW170104 specifically, we compare the predictions of our simulations and these approximate models to LIGO's observations of GW170104.

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  1. Kicking gravitational wave detectors with recoiling black holes

    gr-qc 2019-08 conditional novelty 6.0 of 10

    Equal-mass black holes spinning at 97% of the maximum, in the hangup-kick configuration, recoil up to about 4,700 km/s, and the corresponding waveforms are distinguishable with LIGO at signal-to-noise ratios near 30.

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