Advancing the Landscape of Multimessenger Science in the Next Decade
Abstract
The last decade has brought about a profound transformation in multimessenger science. Ten years ago, facilities had been built or were under construction that would eventually discover the nature of objects in our universe could be detected through multiple messengers. Nonetheless, multimessenger science was hardly more than a dream. The rewards for our foresight were finally realized through IceCube's discovery of the diffuse astrophysical neutrino flux, the first observation of gravitational waves by LIGO, and the first joint detections in gravitational waves and photons and in neutrinos and photons. Today we live in the dawn of the multimessenger era. The successes of the multimessenger campaigns of the last decade have pushed multimessenger science to the forefront of priority science areas in both the particle physics and the astrophysics communities. Multimessenger science provides new methods of testing fundamental theories about the nature of matter and energy, particularly in conditions that are not reproducible on Earth. This white paper will present the science and facilities that will provide opportunities for the particle physics community renew its commitment and maintain its leadership in multimessenger science.
Keywords
Cite
@article{arxiv.2203.10074,
title = {Advancing the Landscape of Multimessenger Science in the Next Decade},
author = {Kristi Engel and Tiffany Lewis and Marco Stein Muzio and Tonia M. Venters and Markus Ahlers and Andrea Albert and Alice Allen and Hugo Alberto Ayala Solares and Samalka Anandagoda and Thomas Andersen and Sarah Antier and David Alvarez-Castillo and Olaf Bar and Dmitri Beznosko and Łukasz Bibrzyck and Adam Brazier and Chad Brisbois and Robert Brose and Duncan A. Brown and Mattia Bulla and J. Michael Burgess and Eric Burns and Cecilia Chirenti and Stefano Ciprini and Roger Clay and Michael W. Coughlin and Austin Cummings and Valerio D'Elia and Shi Dai and Tim Dietrich and Niccolò Di Lalla and Brenda Dingus and Mora Durocher and Johannes Eser and Miroslav D. Filipović and Henrike Fleischhack and Francois Foucart and Michał Frontczak and Christopher L. Fryer and Ronald S. Gamble and Dario Gasparrini and Marco Giardino and Jordan Goodman and J. Patrick Harding and Jeremy Hare and Kelly Holley-Bockelmann and Piotr Homola and Kaeli A. Hughes and Brian Humensky and Yoshiyuki Inoue and Tess Jaffe and Oleg Kargaltsev and Carolyn Kierans and James P. Kneller and Cristina Leto and Fabrizio Lucarelli and Humberto Martínez-Huerta and Alessandro Maselli and Athina Meli and Patrick Meyers and Guido Mueller and Zachary Nasipak and Michela Negro and Michał Niedźwiecki and Scott C. Noble and Nicola Omodei and Stefan Oslowski and Matteo Perri and Marcin Piekarczyk and Carlotta Pittori and Gianluca Polenta and Remy L. Prechelt and Giacomo Principe and Judith Racusin and Krzysztof Rzecki and Rita M. Sambruna and Joshua E. Schlieder and David Shoemaker and Alan Smale and Tomasz Sośnicki and Robert Stein and Sławomir Stuglik and Peter Teuben and James Ira Thorpe and Joris P. Verbiest and Franceso Verrecchia and Salvatore Vitale and Zorawar Wadiasingh and Tadeusz Wibig and Elijah Willox and Colleen A. Wilson-Hodge and Joshua Wood and Hui Yang and Haocheng Zhang},
journal= {arXiv preprint arXiv:2203.10074},
year = {2022}
}
Comments
174 pages, 12 figures. Contribution to Snowmass 2021. Solicited white paper from CF07. Comments and endorsers welcome. Still accepting contributions (contact editors)