Published July 22, 2021 | Submitted
Journal Article Open

Environmental noise in advanced LIGO detectors

Nguyen, P. ORCID icon
Schofield, R. M. S.
Effler, A.
Austin, C. ORCID icon
Adya, V.
Ball, M.
Banagiri, S.
Banowetz, K.
Billman, C.
Blair, C. D. ORCID icon
Buikema, A. ORCID icon
Cahillane, C. ORCID icon
Clara, F.
Covas, P. B.
Dalya, G. ORCID icon
Daniel, C.
Dawes, B.
DeRosa, R.
Dwyer, S. E.
Frey, R.
Frolov, V. V.
Ghirado, D.
Goetz, E. ORCID icon
Hardwick, T.
Helmling-Cornell, A. F. ORCID icon
Hollows, I. J.
Kijbunchoo, N. ORCID icon
Kruk, J. ORCID icon
Laxen, M. ORCID icon
Maaske, E.
Mansell, G. L.
McCarthy, R
Merfeld, K.
Neunzert, A.
Palamos, J. R.
Parker, W. ORCID icon
Pearlstone, B.
Pele, A. ORCID icon
Radkins, H.
Roma, V.
Savage, R. L. ORCID icon
Schale, P.
Shoemaker, D. ORCID icon
Shoemaker, T.
Soni, S. ORCID icon
Talukder, D.
Tse, M. ORCID icon
Valdes, G.
Vidreo, M.
Vorvick, C. ORCID icon
Abbott, R.
Adams, C.
Adhikari, R. X. ORCID icon
Ananyeva, A.
Appert, S.
Arai, K. ORCID icon
Areeda, J. S. ORCID icon
Asali, Y.
Aston, S. M.
Baer, A. M.
Ballmer, S. W. ORCID icon
Barker, D.
Barsotti, L. ORCID icon
Bartlett, J.
Berger, B. K. ORCID icon
Betzwieser, J. ORCID icon
Bhattacharjee, D. ORCID icon
Billingsley, G. ORCID icon
Biscans, S. ORCID icon
Blair, R. M.
Bode, N. ORCID icon
Booker, P.
Bork, R.
Bramley, A.
Brooks, A. F. ORCID icon
Brown, D. D.
Cannon, K. C. ORCID icon
Chen, X.
Ciobanu, A. A. ORCID icon
Cooper, S. J. ORCID icon
Compton, C. M. ORCID icon
Corley, K. R.
Countryman, S. T. ORCID icon
Coyne, D. C. ORCID icon
Datrier, L. E. H. ORCID icon
Davis, D. ORCID icon
Di Fronzo, C.
Dooley, K. L. ORCID icon
Driggers, J. C. ORCID icon
Dupej, P.
Etzel, T.
Evans, M. ORCID icon
Evans, T. M. ORCID icon
Feicht, J. ORCID icon
Fernandez-Galiana, A. ORCID icon
Fritschel, P. ORCID icon
Fulda, P. ORCID icon
Fyffe, M.
Giaime, J. A. ORCID icon
Giardina, K. D.
Godwin, P.
Gras, S.
Gray, C.
Gray, R.
Green, A. C. ORCID icon
Gustafson, E. K.
Gustafson, R.
Hanks, J.
Hanson, J.
Hasskew, R. K.
Heintze, M. C.
Holland, N. A.
Jones, J. D.
Kandhasamy, S. ORCID icon
Karki, S.
Kasprzack, M. ORCID icon
Kawabe, K. ORCID icon
King, P. J.
Kissel, J. S. ORCID icon
Kumar, Rahul
Landry, M.
Lane, B. B. ORCID icon
Lantz, B. ORCID icon
Lecoeuche, Y. K.
Leviton, J.
Liu, J. ORCID icon
Lormand, M.
Lundgren, A. P.
Macas, R.
MacInnis, M. ORCID icon
Macleod, D. M. ORCID icon
Márka, S. ORCID icon
Márka, Z.
Martynov, D. V. ORCID icon
Mason, K.
Massinger, T. J. ORCID icon
Matichard, F. ORCID icon
Mavalvala, N.
McClelland, D. E. ORCID icon
McCormick, S.
McCuller, L. ORCID icon
McIver, J. ORCID icon
McRae, T.
Mendell, G.
Merilh, E. L.
Meylahn, F. ORCID icon
Meyers, P. M.
Mistry, T.
Mittleman, R.
Moreno, G.
Mow-Lowry, C. M. ORCID icon
Mozzon, S. ORCID icon
Mullavey, A. ORCID icon
Nelson, T. J. N.
Nuttall, L. K. ORCID icon
Oberling, J.
Oram, Richard J.
Osthelder, C.
Ottaway, D. J. ORCID icon
Overmier, H.
Payne, E.
Penhorwood, R.
Perez, C. J.
Pirello, M. ORCID icon
Ramirez, K. E. ORCID icon
Richardson, J. W. ORCID icon
Riles, K. ORCID icon
Robertson, N. A.
Rollins, J. G. ORCID icon
Romel, C. L.
Romie, J. H.
Ross, M. P. ORCID icon
Ryan, K.
Sadecki, T.
Sanchez, E. J.
Sanchez, L. E.
Saravanan, T. R.
Schaetzl, D.
Schnabel, R. ORCID icon
Schwartz, E. ORCID icon
Sellers, D.
Shaffer, T.
Sigg, D. ORCID icon
Slagmolen, B. J. J. ORCID icon
Smith, J. R. ORCID icon
Sorazu, B. ORCID icon
Spencer, A. P.
Strain, K. A. ORCID icon
Sun, L. ORCID icon
Szczepańczyk, M. J. ORCID icon
Thomas, M.
Thomas, P.
Thorne, K. A. ORCID icon
Toland, K.
Torrie, C. I.
Traylor, G.
Urban, A. L.
Vajente, G. ORCID icon
Vander-Hyde, D. C.
Veitch, P. J. ORCID icon
Venkateswara, K.
Venugopalan, G. ORCID icon
Viets, A. D. ORCID icon
Vo, T.
Wade, M. ORCID icon
Ward, R. L.
Warner, J.
Weaver, B. ORCID icon
Weiss, R.
Whittle, C. ORCID icon
Willke, B. ORCID icon
Wipf, C. C.
Xiao, L. ORCID icon
Yamamoto, H. ORCID icon
Yu, Hang ORCID icon
Yu, Haocun ORCID icon
Zhang, L. ORCID icon
Zucker, M. E. ORCID icon
Zweizig, J. ORCID icon
An error occurred while generating the citation.

Abstract

The sensitivity of the advanced LIGO detectors to gravitational waves can be affected by environmental disturbances external to the detectors themselves. Since the transition from the former initial LIGO phase, many improvements have been made to the equipment and techniques used to investigate these environmental effects. These methods have aided in tracking down and mitigating noise sources throughout the first three observing runs of the advanced detector era, keeping the ambient contribution of environmental noise below the background noise levels of the detectors. In this paper we describe the methods used and how they have led to the mitigation of noise sources, the role that environmental monitoring has played in the validation of gravitational wave events, and plans for future observing runs.

Additional Information

© 2021 IOP Publishing Ltd. Received 5 February 2021; Revised 3 May 2021; Accepted 13 May 2021; Published 15 June 2021. LIGO was constructed by the California Institute of Technology and Massachusetts Institute of Technology with funding from the National Science Foundation and operates under Cooperative Agreement No. PHY-1764464. Advanced LIGO was built under Grant No. PHY-0823459. The authors acknowledge support from NSF Grants PHY-1607336, PHY-1912604, PHY-1806656, and PHY-1806656. For this paper, we use the data from the Advanced LIGO detectors and we used the LIGO computing clusters to perform the analysis and calculations. Data availability statement: The data that support the findings of this study are openly available at the following URL/DOI: http://pem.ligo.org/.

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Created:
August 20, 2023
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