The NoEMi (Noise Frequency Event Miner) framework

The data collected by a gravitational wave interferometer are inevitably affected by instrumental artefacts and environmental disturbances. In particular, for continuous gravitational wave (CW) studies it is important to detect narrow-band disturbances (the so-called "noise lines") during science runs, and to help scientists to identify and possibly remove or mitigate their sources. The NoEMi (Noise Frequency Event Miner) framework exploits some of the algorithms implemented for the CW search to identify, on a daily basis, the frequency lines observed in the Virgo science data and in a subset... Mehr ...

Verfasser: François Bondu
Andrea Chincarini
V. Boschi
M. Galimberti
A. Chiummo
M. A. Bizouard
L. A. Forte
F. Martelli
R. Passaquieti
M. Punturo
B. L. Swinkels
Stefaan Franco
M. Vasúth
J. Marque
M. Yvert
B. Bouhou
Ettore Majorana
G. Vajente
D. S. Rabeling
A. Rocchi
L. Naticchioni
Christine Michel
M. Agathos
R. Cavalieri
I. Kowalska
A. Królak
L. Bonelli
A. Dietz
C. Palomba
L. Taffarello
G. A. Prodi
J. P. Zendri
Tomasz Bulik
N. Man
F. Fidecaro
Elena Cesarini
V. Fafone
L. Bosi
R. Day
J. Colas
D. Rosińska
Kazuhiro Yamamoto
G. Ballardin
V. Dattilo
Benjamin Canuel
S. Mosca
M. Davier
Fabrizio Barone
G. Endroczi
C. Bradaschia
M. Bitossi
G. Losurdo
J. Y. Vinet
F. Ricci
I. Ferrante
Th. S. Bauer
W. Del Pozzo
M. G. Beker
J.-P. Coulon
B. Sassolas
E. Cuoco
M. Kasprzack
R. J. G. Jonker
P. Puppo
I. Fiori
Antoine Heidmann
Rosa Poggiani
Luca Gammaitoni
Christelle Lesvigne-Buy
V. Re
F. Robinet
A. P. M. ter Braack
G. Debreczeni
F. Vetrano
N. Leroy
C. Van Den Broeck
L. Di Fiore
István Rácz
F. Nocera
J.-F. Hayau
A. Di Lieto
E. Chassande-Mottin
J.-D. Fournier
G. Vedovato
H. J. Bulten
G. Hemming
S. Frasca
M. Vavoulidis
E. Genin
M. Barsuglia
M. Mantovani
M. Colombini
S. Vitale
N. Morgado
D. Sentenac
D. Buskulic
F. Travasso
M. Was
H. Vocca
F. Piergiovanni
E. Tournefier
A. Basti
A. Conte
D. Passuello
M. Parisi
F. Carbognani
Fausto Acernese
A. Zadroźny
T. Regimbau
F. Cleva
M. Di Paolo Emilio
A. Colla
R. De Rosa
R. Paoletti
N. Letendre
F. Cavalier
A. Brillet
B. Mours
M. Tacca
S. Van Der Putten
Mirko Prato
P. Ruggi
A. Morgia
J. Franc
J. F. J. van den Brand
S. Braccini
R. Bonnand
L. Sperandio
A. Viceré
A. Pasqualetti
V. Loriette
V. Brisson
S. D'Antonio
F. Paoletti
A. Di Virgilio
E. Coccia
M. Blom
N. Liguori
L. Pinard
Michał Bejger
M. Pietka
Gabriel Chardin T. Briant
F. Marion
G. Gemme
M. Granata
Piotr Jaranowski
D. Verkindt
M. E. Gáspár
G. Cella
F. Frasconi
T. Accadia
Gianluca Persichetti
M. Bebronne
M. Lorenzini
A. Masserot
M. Mohan
R. L. Ward
Fabio Marchesoni
P. Hello
P. Rapagnani
P. F. Cohadon
Riccardo Sturani
V. Malvezzi
M. Branchesi
O. Torre
M. Tonelli
P. Astone
Alessandra Toncelli
A. Giazotto
L. Rolland
I. Maksimovic
O. Chaibi
R. Gouaty
H. Heitmann
R. Flaminio
Tenglin Li
Enrico Calloni
C. Greverie
G. M. Guidi
Rocco Romano
Y. Minenkov
M. Drago
L. Palladino
A. Gennai
Leopoldo Milano
F. Garufi
C. N. Colacino
Dokumenttyp: Artikel
Erscheinungsdatum: 2012
Schlagwörter: NEANIAS Space Research Community / Aurora Universities Network / Digital Humanities and Cultural Heritage / Social Science and Humanities / Netherlands / General Physics and Astronomy
Sprache: unknown
Permalink: https://search.fid-benelux.de/Record/base-27200601
Datenquelle: BASE; Originalkatalog
Powered By: BASE
Link(s) : https://www.openaccessrepository.it/record/139605

The data collected by a gravitational wave interferometer are inevitably affected by instrumental artefacts and environmental disturbances. In particular, for continuous gravitational wave (CW) studies it is important to detect narrow-band disturbances (the so-called "noise lines") during science runs, and to help scientists to identify and possibly remove or mitigate their sources. The NoEMi (Noise Frequency Event Miner) framework exploits some of the algorithms implemented for the CW search to identify, on a daily basis, the frequency lines observed in the Virgo science data and in a subset of the environmental sensors, looking for lines that match in frequency. A line tracker algorithm reconstructs the lines over time, and stores them in a database, which is made accesible via a web interface. We describe the workflow of NoEMi, providing examples of its use for the investigation of noise lines in past Virgo runs (VSR2, VSR3) and in the most recent run (VSR4).