S5 First Epoch BNS Inspiral Results Drew Keppel 1 representing the Inspiral Group 1 California Institute of Technology Nov LSC Meeting MIT, 4 November.

Slides:



Advertisements
Similar presentations
S3/S4 BBH report Thomas Cokelaer LSC Meeting, Boston, 3-4 June 2006.
Advertisements

A walk through some statistic details of LSC results.
For the Collaboration GWDAW 2005 Status of inspiral search in C6 and C7 Virgo data Frédérique MARION.
GWDAW /12/16 - G Z1 Report on the First Search for BBH Inspiral Signals on the S2 LIGO Data Eirini Messaritaki University of Wisconsin-Milwaukee.
GEO02 February GEO Binary Inspiral Search Analysis.
LIGO-G Z Coherent Coincident Analysis of LIGO Burst Candidates Laura Cadonati Massachusetts Institute of Technology LIGO Scientific Collaboration.
Systematic effects in gravitational-wave data analysis
LIGO-G Data Analysis Techniques for LIGO Laura Cadonati, M.I.T. Trento, March 1-2, 2007.
G Z April 2007 APS Meeting - DAP GGR Gravitational Wave AstronomyKeith Thorne Coincidence-based LIGO GW Burst Searches and Astrophysical Interpretation.
Adapting matched filtering searches for compact binary inspirals in LSC detector data. Chad Hanna – For the LIGO Scientific Collaboration.
LSC Meeting, November 4, 2006 LIGO-G D 1 Alan Weinstein (LIGO Laboratory / Caltech) For the LSC Internal review committee: Duncan Brown, Laura.
LIGO PAC Meeting, 6 June 2003 Peter Shawhan (LIGO/Caltech)LIGO-G E First LIGO Search for Binary Inspirals Peter Shawhan (LIGO Lab / Caltech)
The Role of Data Quality in S5 Burst Analyses Lindy Blackburn 1 for the LIGO Scientific Collaboration 1 Massachusetts Institute of Technology, Cambridge,
LIGO-G Z Peter Shawhan, for the LIGO Scientific Collaboration APS Meeting April 25, 2006 Search for Gravitational Wave Bursts in Data from the.
Reducing False Alarms in Searches for Gravitational Waves from Coalescing Binary Systems Andrés C. Rodríguez Louisiana State University M.S. Thesis Defense.
LIGO-G Z The AURIGA-LIGO Joint Burst Search L. Cadonati, G. Prodi, L. Baggio, S. Heng, W. Johnson, A. Mion, S. Poggi, A. Ortolan, F. Salemi, P.
Data Quality Vetoes in LIGO S5 Searches for Gravitational Wave Transients Laura Cadonati (MIT) For the LIGO Scientific Collaboration LIGO-G Z.
The Analysis of Binary Inspiral Signals in LIGO Data Jun-Qi Guo Sept.25, 2007 Department of Physics and Astronomy The University of Mississippi LIGO Scientific.
Abstract: We completed the tuning of the analysis procedures of the AURIGA-LIGO joint burst search and we are in the process of verifying our results.
Searching for Gravitational Waves with LIGO Andrés C. Rodríguez Louisiana State University on behalf of the LIGO Scientific Collaboration SACNAS
LIGO-G Z April 2006 APS meeting Igor Yakushin (LLO, Caltech) Search for Gravitational Wave Bursts in LIGO’s S5 run Igor Yakushin (LLO, Caltech)
Amaldi-7 meeting, Sydney, Australia, July 8-14, 2007 LIGO-G Z All-Sky Search for Gravitational Wave Bursts during the fifth LSC Science Run Igor.
A Waveform Consistency Test for Binary Inspirals using LIGO data LSC Inspiral Analysis Working Group LIGO-G Z LSC Meeting Andres C. Rodriguez.
15 Dec 2005GWDAW 10 LIGO-G Z1 Overview of LIGO Scientific Collaboration Inspiral Searches Alexander Dietz Louisiana State University for the LIGO.
Searching for Gravitational Waves from Binary Inspirals with LIGO Duncan Brown University of Wisconsin-Milwaukee for the LIGO Scientific Collaboration.
S5 BNS Inspiral Update Duncan Brown Caltech LIGO-G Z.
1 Status of Search for Compact Binary Coalescences During LIGO’s Fifth Science Run Drew Keppel 1 for the LIGO Scientific Collaboration 1 California Institute.
LIGO- G D Experimental Upper Limit from LIGO on the Gravitational Waves from GRB Stan Whitcomb For the LIGO Scientific Collaboration Informal.
1 Laura Cadonati, MIT For the LIGO Scientific Collaboration APS meeting Tampa, FL April 16, 2005 LIGO Hanford ObservatoryLIGO Livingston Observatory New.
LIGO-G Z The Q Pipeline search for gravitational-wave bursts with LIGO Shourov K. Chatterji for the LIGO Scientific Collaboration APS Meeting.
LIGO-G Z GWDAW9 December 17, Search for Gravitational Wave Bursts in LIGO Science Run 2 Data John G. Zweizig LIGO / Caltech for the LIGO.
First Year S5 Low Mass Compact Binary Coalescences Drew Keppel 1 representing the LIGO/VIRGO Compact Binary Coalescence Group 1 California Institute of.
LIGO-G All-Sky Burst Search in the First Year of the LSC S5 Run Laura Cadonati, UMass Amherst For the LIGO Scientific Collaboration GWDAW Meeting,
Results From the Low Threshold, Early S5, All-Sky Burst Search Laura Cadonati for the Burst Group LSC MIT November 5, 2006 G Z.
Peter Shawhan The University of Maryland & The LIGO Scientific Collaboration Penn State CGWP Seminar March 27, 2007 LIGO-G Z Reaching for Gravitational.
LIGO-G Z Status of the LIGO-TAMA Joint Bursts Search Patrick Sutton LIGO Laboratory, Caltech, for the LIGO-TAMA Joint Working Group.
LIGO-G Z r statistics for time-domain cross correlation on burst candidate events Laura Cadonati LIGO-MIT LSC collaboration meeting, LLO march.
LSC Meeting, 10 Nov 2003 Peter Shawhan (LIGO/Caltech)1 Inspiral Waveform Consistency Tests Evan Ochsner and Peter Shawhan (U. of Chicago) (LIGO / Caltech)
Igor Yakushin, December 2004, GWDAW-9 LIGO-G Z Status of the untriggered burst search in S3 LIGO data Igor Yakushin (LIGO Livingston Observatory)
LIGO- G Z 11/13/2003LIGO Scientific Collaboration 1 BlockNormal Performance Studies John McNabb & Keith Thorne, for the Penn State University.
LIGO-G Z Status of the LIGO-TAMA Joint Bursts Search Patrick Sutton LIGO Laboratory, Caltech, for the LIGO-TAMA Joint Working Group.
LIGO-G Z Peter Shawhan, for the LSC Burst Analysis Group LSC Observational Results Meeting November 4, 2006 The S4 LIGO All-Sky Burst Search.
November, 2009 STAC - Data Analysis Report 1 Data Analysis report November, 2009 Gianluca M Guidi Università di Urbino and INFN Firenze for the Virgo Collaboration.
Abstract: We completed the tuning of the analysis procedures of the AURIGA-LIGO joint burst search and we are in the process of verifying our results.
LSC Meeting, June 3, 2006 LIGO-G Z 1 Status of inspiral search reviews Alan Weinstein (LIGO Laboratory / Caltech) For the LSC Internal review.
LIGO-G Z Results from the search for spinning binary systems in S3 LIGO data Gareth Jones Cardiff School of Physics and Astronomy for the LIGO.
LIGO-G Z The Q Pipeline search for gravitational-wave bursts with LIGO Shourov K. Chatterji for the LIGO Scientific Collaboration APS Meeting.
24 th Pacific Coast Gravity Meeting, Santa Barbara LIGO DCC Number: G Z 1 Search for gravitational waves from inspiraling high-mass (non-spinning)
LIGO-G Z Results from LIGO Observations Stephen Fairhurst University of Wisconsin - Milwaukee on behalf of the LIGO Scientific Collaboration.
GRB triggered Inspiral Searches in the fifth Science Run of LIGO Alexander Dietz Cardiff University for the LIGO Scientific Collaboration LIGO-G Z.
Search for gravitational waves from binary inspirals in S3 and S4 LIGO data. Thomas Cokelaer on behalf of the LIGO Scientific Collaboration.
Search for compact binary systems in LIGO data Thomas Cokelaer On behalf of the LIGO Scientific Collaboration Cardiff University, U.K. LIGO-G Z.
Search for compact binary systems in LIGO data Craig Robinson On behalf of the LIGO Scientific Collaboration Cardiff University, U.K. LIGO-G
Thomas Cokelaer for the LIGO Scientific Collaboration Cardiff University, U.K. APS April Meeting, Jacksonville, FL 16 April 2007, LIGO-G Z Search.
Data Analysis report November, 2009 Gianluca M Guidi
S3 Spinning Binary Black Hole Search: Status Report
Inspiral Analysis Group Results
S5 First Epoch BNS & BBH Inspiral Update
The Q Pipeline search for gravitational-wave bursts with LIGO
Inspiral Analysis Group Results
r-statistic performance in S2
LIGO Scientific Collaboration meeting
On Behalf of the LIGO Scientific Collaboration and VIRGO
S3/S4 BNS/PBH RESULTS and UPPER LIMITS
Background estimation in searches for binary inspiral
Towards the first coherent multi-ifo search for NS binaries in LIGO
OK Alexander Dietz Louisiana State University
Coherent Coincident Analysis of LIGO Burst Candidates
Inspiral Waveform Consistency Tests
A Waveform Consistency Test for Binary Inspirals using LIGO data
Presentation transcript:

S5 First Epoch BNS Inspiral Results Drew Keppel 1 representing the Inspiral Group 1 California Institute of Technology Nov LSC Meeting MIT, 4 November 2006 LIGO-G Z

Summary Start of run (11/4/05) to start of LHO commissioning (02/06/06) Standard M  2pN inspiral templates Search pipeline (filter, vetoes, coincidence) Full Data Results »No detection Upper Limit »0.17 L yr -1 for 1.35 M  »Mass dependent Future plans

S5 First Epoch BNS Analysis Distance to optimally oriented 1.4,1.4 M  BNS at  = 8 First S5 Epoch Nov 4, Feb 6, 2006 current target sensitivity shown in sensemon 2k 4k

Parameter Accuracy of recovered software injections Mchirp accuracy: 0.01 M sun End time accuracy: 5 ms

Accidental Coincidences and Simulated Signals Tune pipeline using background, playground (10% of data) and injections Measure background by applying time slides before coincidence Add simulated signals to detector data to evaluate analysis performance

Vetoes Two types of Vetoes are used to eliminate false triggers »Data Quality Vetoes »Signal-Based Vetoes –  2 waveform consistency test –  2 time above threshold veto All vetoed injections above coincide with glitches. Data Quality Vetoes: categorized »Cat. 1 –Data not analyzed –H1:H2_OUT_OF_LOCK »Cat. 2 & 3 –Triggers discarded –MASTER_OVERFLOW_LSC –PRE_LOCKLOSS_120_SEC

H1H2 Amplitude Consistency Effective Distance Cut »For triggers with both H1 and H2 triggers Consistency Cut »For triggers with one Hanford trigger when both were in science mode

H1H2 Effective Distance Cut

Efficiency Curve 50% efficiency at 25 Mpc

Population Model The galaxy catalog has been extended to 100 Mpc »only complete to 25 Mpc »we are now sensitive to those distances »The upper limit has used a catalog extended to 75 Mpc

S5 Epoch 1 Full Data Signal with SNR 8 in H1 and L1 detectors would appear here All triggers consistent with background

Upper Limit Gaussian Mass Distribution »centered around 1.35 M  »Luminosity for H1H2L1 times:177 L 10 »Upper Limit:0.17 L yr -1 Uniform Mass Distribution »Luminosity for H1H2L1 times: –2-3 M  :155 L 10 –3-4 M  :294 L 10 –4-5 M  :499 L 10 –5-6 M  :1077 L 10 1 MWEG = 1.7 L 10,B »Switched to L 10 ’s because of error in MWEG

Mass Dependent Upper Limit Total Mass M  Rate L yr -1 S2 S3/S

Future for S5 BNS Follow up of loudest events in First Epoch Adding Coherent Code to Pipeline Post-Newtonian search from 2 to ~30 Total M  from 1 calendar year of S5 data »Goal is a result presented at March LSC Meeting 2007

The End