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Steven L. Liebling
Researcher at Long Island University
Publications - 96
Citations - 4874
Steven L. Liebling is an academic researcher from Long Island University. The author has contributed to research in topics: Neutron star & Gravitational wave. The author has an hindex of 39, co-authored 91 publications receiving 4213 citations. Previous affiliations of Steven L. Liebling include Perimeter Institute for Theoretical Physics & University of Texas at Austin.
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Dynamical boson stars
TL;DR: This work discusses important varieties of boson stars, their dynamic properties, and some of their uses, concentrating on recent efforts.
Journal ArticleDOI
Dynamical Boson Stars
TL;DR: This work discusses important varieties of boson stars, their dynamic properties, and some of their uses, concentrating on recent efforts.
Journal ArticleDOI
Effects of the microphysical Equation of State in the mergers of magnetized Neutron Stars With Neutrino Cooling
Carlos Palenzuela,Steven L. Liebling,David Neilsen,Luis Lehner,O. L. Caballero,Evan O'Connor,Matthew Anderson +6 more
TL;DR: In this article, the influence of the equation of state on the gravitational wave signature and its role in determining the properties of the hypermassive neutron star resulting from the merger, the production of neutrinos, and the characteristics of ejecta from the system.
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Dual Jets from Binary Black Holes
TL;DR: Solving the Einstein equations to describe black holes interacting with surrounding plasma, and presenting numerical evidence for possible jets driven by these systems, suggests that the electromagnetic field extracts energy from the orbiting black holes, which ultimately merge and settle into the standard Blandford-Znajek scenario.
Journal ArticleDOI
Magnetized Neutron-Star Mergers and Gravitational-Wave Signals
Matthew Anderson,Eric W. Hirschmann,Luis Lehner,Steven L. Liebling,Patrick M. Motl,David Neilsen,Carlos Palenzuela,Joel E. Tohline +7 more
TL;DR: During and after merger, phenomena driven by the magnetic field are observed, including Kelvin-Helmholtz instabilities in shear layers, winding of the field lines, and transition from poloidal to toroidal magnetic fields.