Closing Remarks Developing the AEDGE Programme AEDGE CERN

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Presentation transcript:

Closing Remarks Developing the AEDGE Programme AEDGE Workshop @ CERN July 22/23, 2019 John Ellis (King’s College London)

Searches for Light Dark Matter Chris McCabe Searches for Light Dark Matter

Searches for Light Dark Matter Chris McCabe Searches for Light Dark Matter

Future DM Tasks Understanding the synergies between dark matter searches in this mass range and other astrophysical and cosmological observations. Exploring the synergies between AEDGE and other laboratory probes of ultra-light bosonic dark matter. Showing how to identify unambiguously dark matter as the origin of a signal in AEDGE, rather than a signal from, e.g., time-varying physical parameters or GWs, and extract the dark matter properties from the signal.

Gravitational Wave Spectrum Gap between ground-based optical interferometers @ LISA Electroweak phase transition? Cosmic strings?

Gravitational Waves from IMBHs Marek Lewicki Gravitational Waves from IMBHs Probe formation of SMBHs, synergies, test GR

Gravitational Waves from Phase Transition Marek Lewicki

Gravitational Waves from Cosmic Strings Marek Lewicki Gravitational Waves from Cosmic Strings Probe expansion history of early universe

Possible GW Tasks Modelling astrophysical sources whose GWs peak in mid- frequency range, e.g., intermediate-mass BHs (seeds for supermassive BHs observed today), providing insight into their evolution and their host galaxies. Understanding synergies of multiband GW astronomy combining GW searches in this frequency range with LISA, LIGO/Virgo/KAGRA & other astrophysical observations, e.g., for predicting timing, directions & distances of future merger events. Novel tests of the strong-gravity regime via, e.g., accurate timing of the GW phase evolution, that are not accessible with ground-based interferometers and LISA alone.Calculating mid-frequency GW signatures of cosmological phase transitions, e.g., at the electroweak scale, and relating them to collider signatures of possible extensions of the Standard Model. Sensitivity to cosmic strings -

Explore Beyond Dark Matter & GWs High-precision measurement of the gravitational redshift, probes of Bell inequalities and the equivalence principle Probing fundamental “constants”, chameleons, dark energy Detecting astrophysical? Long-range fifth forces? Lorentz violation? Fundamental (≠ environmental) decoherence?

Summary The nature of DM is one of the most important and pressing in particle physics and cosmology Experience with electromagnetic waves shows the advantages of making astronomical observations in a range of different frequencies, and the same is expected to hold in the era of gravitational astronomy Other possible opportunities for AEDGE in fundamental physics, astrophysics and cosmology have been identified, but not yet explored in detail AEDGE is a uniquely interdisciplinary mission that will harness cold atom technologies to address key issues in fundamental physics, astrophysics and cosmology

Future Steps Prepare White Paper (deadline August 5th) Open authorship for arXiv/publication Link communities (CA, GW, PP) Identify “pathfinders” Construct roadmap Role for CERN? Technology? “Recognized experiment”?