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Dive into the research topics where J. Slutsky is active.

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Featured researches published by J. Slutsky.


Classical and Quantum Gravity | 2008

The LSC glitch group: monitoring noise transients during the fifth LIGO science run

L. Blackburn; L. Cadonati; S. Caride; S. Caudill; S. Chatterji; N. Christensen; J. Dalrymple; S. Desai; A. Di Credico; Gregory Ely; J. Garofoli; L. M. Goggin; G. González; R. Gouaty; C. Gray; A. M. Gretarsson; D. Hoak; T. Isogai; E. Katsavounidis; J. S. Kissel; Sergey Klimenko; R. A. Mercer; S. R P Mohapatra; S. Mukherjee; F. J. Raab; K. Riles; P. R. Saulson; R. Schofield; P. Shawhan; J. Slutsky

The LIGO Scientific Collaboration (LSC) glitch group is part of the LIGO detector characterization effort. It consists of data analysts and detector experts who, during and after science runs, collaborate for a better understanding of noise transients in the detectors. Goals of the glitch group during the fifth LIGO science run (S5) included (1) offline assessment of the detector data quality, with focus on noise transients, (2) veto recommendations for astrophysical analysis and (3) feedback to the commissioning team on anomalies seen in gravitational wave and auxiliary data channels. Other activities included the study of auto-correlation of triggers from burst searches, stationarity of the detector noise and veto studies. The group identified causes for several noise transients that triggered false alarms in the gravitational wave searches; the times of such transients were identified and vetoed from the data generating the LSC astrophysical results.


Classical and Quantum Gravity | 2010

Methods for reducing false alarms in searches for compact binary coalescences in LIGO data

J. Slutsky; L. Blackburn; D. A. Brown; L. Cadonati; J. Cain; M. Cavaglià; S. Chatterji; N. Christensen; M. W. Coughlin; S. Desai; G. González; T. Isogai; E. Katsavounidis; B. Rankins; T. Reed; K. Riles; P. Shawhan; J. R. Smith; N. Zotov; J. Zweizig

The LIGO detectors are sensitive to a variety of noise transients of non-astrophysical origin. Instrumental glitches and environmental disturbances increase the false alarm rate in the searches for gravitational waves. Using times already identified when the interferometers produced data of questionable quality, or when the channels that monitor the interferometer indicated non-stationarity, we have developed techniques to safely and effectively veto false triggers from the compact binary coalescences search pipeline.

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E. Katsavounidis

Massachusetts Institute of Technology

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G. González

Louisiana State University

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K. Riles

University of Michigan

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L. Blackburn

Goddard Space Flight Center

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L. Cadonati

University of Massachusetts Amherst

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S. Chatterji

California Institute of Technology

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B. Rankins

University of Mississippi

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