CERN Accelerating science

Preprint
Report number	arXiv:2204.01178 ; FERMILAB-PUB-22-241-SQMS-TD
Title	Key directions for research and development of superconducting radio frequency cavities
Author(s)	Belomestnykh, S. (Fermilab ; Stony Brook U.) ; Posen, S. (Fermilab) ; Bafia, D. (Fermilab) ; Balachandran, S. (Natl. High Mag. Field Lab.) ; Bertucci, M. (LASA, Segrate) ; Burrill, A. (SLAC) ; Cano, A. (Fermilab) ; Checchin, M. (Fermilab) ; Ciovati, G. (Jefferson Lab) ; Cooley, L.D. (Natl. High Mag. Field Lab.) ; Semione, G. Dalla Lana (Hamburg U.) ; Delayen, J. (Old Dominion U. ; Jefferson Lab) ; Eremeev, G. (Fermilab) ; Furuta, F. (Fermilab) ; Gerigk, F. (CERN) ; Giaccone, B. (Fermilab) ; Gonnella, D. (SLAC) ; Grassellino, A. (Fermilab) ; Gurevich, A. (Old Dominion U.) ; Hillert, W. (Hamburg U.) ; Iavarone, M. (Temple U.) ; Knobloch, J. (Helmholtz-Zentrum, Berlin ; Siegen U.) ; Kubo, T. (KEK, Tsukuba ; Sokendai, Kanagawa) ; Kwok, W.-K. (Argonne) ; Laxdal, R. (TRIUMF) ; Lee, P.J. (Natl. High Mag. Field Lab.) ; Liepe, M. (Cornell U.) ; Martinello, M. (Fermilab) ; Melnychuk, O.S. (Fermilab) ; Nassiri, A. (Argonne) ; Netepenko, A. (Fermilab) ; Padamsee, H. (Cornell U. ; Fermilab) ; Pagani, C. (LASA, Segrate) ; Paparella, R. (LASA, Segrate) ; Pudasaini, U. (Jefferson Lab) ; Reece, C.E. (Jefferson Lab) ; Reschke, D. (DESY) ; Romanenko, A. (Fermilab) ; Ross, M. (SLAC) ; Saito, K. (Michigan State U.) ; Sauls, J. (Northwestern U.) ; Seidman, D.N. (Northwestern U.) ; Solyak, N. (Fermilab) ; Sung, Z. (Fermilab) ; Umemori, K. (KEK, Tsukuba) ; Valente-Feliciano, A.-M. (Jefferson Lab) ; Delsolaro Venturini, W. (CERN) ; Walker, N. (DESY) ; Weise, H. (DESY) ; Welp, U. (Argonne) ; Wenskat, M. (Hamburg U.) ; Wu, G. (Fermilab) ; Xi, X.X. (Temple U.) ; Yakovlev, V. (Fermilab) ; Yamamoto, A. (KEK, Tsukuba ; CERN) ; Zasadzinski, J. (IIT, Chicago)
Imprint	2022-04-03
Note	contribution to Snowmass 2021
Presented at	2021 Snowmass Summer Study, Seattle, WA, United States, 11 - 20 July 2021, pp.
Subject category	physics.acc-ph ; Accelerators and Storage Rings
Abstract	Radio frequency superconductivity is a cornerstone technology for many future HEP particle accelerators and experiments from colliders to proton drivers for neutrino facilities to searches for dark matter. While the performance of superconducting RF (SRF) cavities has improved significantly over the last decades, and the SRF technology has enabled new applications, the proposed HEP facilities and experiments pose new challenges. To address these challenges, the field continues to generate new ideas and there seems to be a vast room for improvements. In this paper we discuss the key research directions that are aligned with and address the future HEP needs.
Other source	Inspire
Copyright/License	preprint: (License: CC BY 4.0)