

Quantum gravity is concerned with unifying Einstein's general theory of relativity with quantum theory into a single theoretical framework. At Perimeter Institute, researchers are actively pursuing a number of approaches to this problem including loop quantum gravity, spin foam models, asymptotic safety, emergent gravity, string theory, and causal set theory. We are also particularly interested in experimental implications of these different proposals. As the aim is a unification of the laws of physics into a single theory, the search for quantum gravity overlaps with other areas such as cosmology, particle physics and the foundations of quantum theory.
Cesar Galindo Universidad de los Andes
Andreas Bauer Freie Universität Berlin
Michael Mueger Radboud Universiteit Nijmegen
Eric Rowell Texas A&M University
Davide Gaiotto Perimeter Institute for Theoretical Physics
Derek Wise Friedrich-Alexander-Universität Erlangen-Nürnberg
Catherine Meusburger University of Erlangen-Nuremberg
Jurgen Fuchs Karlstad University
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Maïté Dupuis Perimeter Institute for Theoretical Physics
Veronika Hubeny University of California System
Patrick Hayden Stanford University
Robert Spekkens Perimeter Institute for Theoretical Physics
David Kubiznak Charles University
Matthew Headrick Brandeis University
Adrian Kent University of Cambridge
John Watrous IBM (Canada)
Tadashi Takayanagi Yukawa Institute for Theoretical Physics
Matthew Headrick Brandeis University
Thomas Faulkner University of Illinois Urbana-Champaign
Veronika Hubeny University of California System
Jonathan Oppenheim University College London
Glen Evenbly Georgia Institute of Technology
Jutho Haegeman Ghent University
Fernando Pastawski California Institute of Technology
With LIGO/VIRGO in operation and detecting gravitational waves, the era of gravitational wave astronomy is upon us. In anticipation of further observations, this workshop will discuss the physics, astrophysics, and observational prospects--as well as challenges--in gravitational wave sources including black holes, neutron stars, and other fascinating objects, in both the near and long term.
The Kitaev quantum double models are a family of topologically ordered spin models originally proposed to exploit the novel condensed matter phenomenology of topological phases for fault-tolerant quantum computation. Their physics is inherited from topological quantum field theories, while their underlying mathematical structure is based on a class of Hopf algebras. This structure is also seen across diverse fields of physics, and so allows connections to be made between the Kitaev models and topics as varied as quantum gauge theory and modified strong complementarity. This workshop will explore this shared mathematical structure and in so doing develop the connections between the fields of mathematical physics, quantum gravity, quantum information, condensed matter and quantum foundations.