von Paula Doubrawa ; Eliot W. Quon ; Luis A. Martinez-Tossas ; Kelsey Shaler ; Mithu Debnath ; Nicholas Hamilton ; Thomas G. Herges ; Dave Maniaci ; Christopher L. Kelley ; Alan S. Hsieh ; Myra L. Blaylock ; Paul van der Laan ; Søren Juhl Andersen ; Sonja Krüger ; Marie Cathelain ; Wolfgang Schlez ; Jason Jonkman ; Emmanuel Branlard ; Gerald Steinfeld ; Sascha Schmidt ; Frédéric Blondel ; Laura Johanna Lukassen ; Patrick Moriarty
von Leor Barack ; Vitor Cardoso ; Samaya Nissanke ; Thomas P. Sotiriou ; Abbas Askar ; Chris Belczynski ; Gianfranco Bertone ; Edi Bon ; Diego Blas ; Richard Brito ; Tomasz Bulik ; Clare Burrage ; Christian T. Byrnes ; Chiara Caprini ; Masha Chernyakova ; Piotr Chruściel ; Monica Colpi ; Valeria Ferrari ; Daniele Gaggero ; Jonathan Gair ; Juan García-Bellido ; S. F. Hassan ; Lavinia Heisenberg ; Martin Hendry ; Ik Siong Heng ; Carlos Herdeiro ; Tanja Hinderer ; Assaf Horesh ; Bradley J. Kavanagh ; Bence Kocsis ; Michael Kramer ; Alexandre Le Tiec ; Chiara Mingarelli ; Germano Nardini ; Gijs Nelemans ; Carlos Palenzuela ; Paolo Pani ; Albino Perego ; Edward K. Porter ; Elena M. Rossi ; Patricia Schmidt ; Alberto Sesana ; Ulrich Sperhake ; Antonio Stamerra ; Leo C. Stein ; Nicola Tamanini ; Thomas M. Tauris ; L. Arturo Urena-López ; Frederic Vincent ; Marta Volonteri ; Barry Wardell ; Norbert Wex ; Kent Yagi ; Tiziano Abdelsalhin ; Miguel Ángel Aloy ; Pau Amaro-Seoane ; Lorenzo Annulli ; Claus Lämmerzahl ; Jutta Kunz ; Lucas Gardai Collodel ; Jose Luis Blázquez-Salcedo ; Manuel Arca-Sedda
The grand challenges of contemporary fundamental physics—dark matter, dark energy, vacuum energy, inflation and early universe cosmology, singularities and the hierarchy problem—all involve gravity as a key component. And of all gravitational phenomena, black holes stand out in their elegant simplicity, while harbouring some of the most remarkable predictions of General Relativity: event horizons, singularities and ergoregions. The hitherto invisible landscape of the gravitational Universe is being unveiled before our eyes: the historical direct detection of gravitational waves by the LIGO-Virgo collaboration marks the dawn of a new era of scientific exploration. Gravitational-wave astronomy will allow us to test models of black hole formation, growth and evolution, as well as models of gravitational-wave generation and propagation. It will provide evidence for event horizons and ergoregions, test the theory of General Relativity itself, and may reveal the existence of new fundamental fields. The synthesis of these results has the potential to radically reshape our understanding of the cosmos and of the laws of Nature. The purpose of this work is to present a concise, yet comprehensive overview of the state of the art in the relevant fields of research, summarize important open problems, and lay out a roadmap for future progress. This write-up is an initiative taken within the framework of the European Action on ‘Black holes, Gravitational waves and Fundamental Physics’.
Classical and quantum gravity Bristol : IOP Publ., 1984 36(2019), 14, Artikel-ID 143001, Seite 1-178 Online-Ressource
von Laura Kühn ; Anne-Kristin Herrmann ; Bogdan Rutkowski ; Mehtap Özaslan ; Maarten Nachtegaal ; Markus Klose ; Lars Giebeler ; Nikolai Gaponik ; Jürgen Eckert ; Thomas J. Schmidt ; Aleksandra Czyrska-Filemonowicz ; Alexander Eychmüller
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