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

Slides:



Advertisements
Similar presentations
A walk through some statistic details of LSC results.
Advertisements

Upper-limit on Sco X-1 S2 preliminary results C Messenger, V Re and A Vecchio on behalf of PULG LSC General Meeting LHO, 10 th – 13 th November 2003.
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.
Spinning Black Hole Binaries1 Search for Spinning Black Hole Binaries in Advanced LIGO: Parameter tuning of HACR Speaker: Gareth Jones Cardiff University.
G Z April 2007 APS Meeting - DAP GGR Gravitational Wave AstronomyKeith Thorne Coincidence-based LIGO GW Burst Searches and Astrophysical Interpretation.
Statistical problems in network data analysis: burst searches by narrowband detectors L.Baggio and G.A.Prodi ICRR TokyoUniv.Trento and INFN IGEC time coincidence.
Searching for gravitational radiation from Scorpius X-1: Limits from the second LIGO science run Alberto Vecchio on behalf of the LIGO Scientific Collaboration.
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.
TAMA binary inspiral event search Hideyuki Tagoshi (Osaka Univ., Japan) 3rd TAMA symposium, ICRR, 2/6/2003.
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.
S.Klimenko, December 2003, GWDAW Performance of the WaveBurst algorithm on LIGO S2 playground data S.Klimenko (UF), I.Yakushin (LLO), G.Mitselmakher (UF),
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)
Status of coalescing binaries search activities in Virgo GWDAW 11 Status of coalescing binaries search activities in Virgo GWDAW Dec 2006 Leone.
Characterization of Hardware Injections in LIGO Data
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.
Searches for Compact Binary Coalescences in LIGO and Virgo data Gabriela González For the LIGO Scientific Collaboration and the Virgo Collaboration APS.
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 Z The Q Pipeline search for gravitational-wave bursts with LIGO Shourov K. Chatterji for the LIGO Scientific Collaboration APS Meeting.
15-18 Dec 2004Spinning Black Hole Binaries1 Search for Spinning Black Hole Binaries in LIGO/GEO data: The First Steps Speaker: Gareth Jones LSC Inspiral.
Searching for Binary Black Holes with Spin Aligned with Orbital Angular Momentum 1 Deborah L. Hamm – Northern Arizona University LIGO SURF 2013 Mentors:
GWDAW10, UTB, Dec , Search for inspiraling neutron star binaries using TAMA300 data Hideyuki Tagoshi on behalf of the TAMA collaboration.
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.
LIGO- G Z AJW, Caltech, LIGO Project1 A Coherence Function Statistic to Identify Coincident Bursts Surjeet Rajendran, Caltech SURF Alan Weinstein,
LIGO-G Z TFClusters Tuning for the LIGO-TAMA Search Patrick Sutton LIGO-Caltech.
S5 First Epoch BNS Inspiral Results Drew Keppel 1 representing the Inspiral Group 1 California Institute of Technology Nov LSC Meeting MIT, 4 November.
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 v1 Searching for Gravitational Waves from the Coalescence of High Mass Black Hole Binaries 2014 LIGO SURF Summer Seminar August 21 st, 2014.
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.
SEARCH FOR INSPIRALING BINARIES S. V. Dhurandhar IUCAA Pune, India.
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.
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
SC03 failed results delayed FDS: parameter space searches
S3 Spinning Binary Black Hole Search: Status Report
Bounding the strength of gravitational radiation from Sco-X1
S5 First Epoch BNS & BBH Inspiral Update
The Q Pipeline search for gravitational-wave bursts with LIGO
Coherent wide parameter space searches for gravitational waves from neutron stars using LIGO S2 data Xavier Siemens, for the LIGO Scientific Collaboration.
Inspiral Analysis Group Results
LIGO Scientific Collaboration meeting
Bounding the strength of gravitational radiation from Sco-X1
On Behalf of the LIGO Scientific Collaboration and VIRGO
S3/S4 BNS/PBH RESULTS and UPPER LIMITS
Travis Hansen, Marek Szczepanczyk, Michele Zanolin
Maria Principe University of Sannio, Benevento, Italy
Background estimation in searches for binary inspiral
Search for gravitational waves from binary black hole mergers:
OK Alexander Dietz Louisiana State University
Burst Figure of Merit Julien Sylvestre LSC Meeting, March 2004
A Waveform Consistency Test for Binary Inspirals using LIGO data
Performance of the WaveBurst algorithm on LIGO S2 playground data
Search for Ringdowns in LIGO S4 Data
Presentation transcript:

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

Plan ● Target waveforms ● Data in S3, S4, expected distance to be probed ● Filtering and template bank ● The tuning of the searches ● Status of S3 ● Status of S4 ● Conclusions

Target waveforms ● Black hole binaries without spin effects. The two individual component masses are in the range [3 40] solar mass in S3 and [3 80] solar mass in S4 (the difference comes from the effect of the lower cut off frequency set to 70 and 50Hz. – The length of the waveforms are 1.5 seconds at most in S3 and 3.8 seconds in S4. – The injected waveforms used in our simulations are based on different physical waveforms such as Pade, Taylor, EOB. – The individual masses are uniformly distributed.

The data ● Data analysed in S3/S4 data – 124 hours of H1H2L1 data, 604 of H1H2 data in S3. – 365 hours of H1H2L1 data, ~50 hours in H1L1 and H1H2. ● Expected horizon distance for an optimally oriented waveform with an SNR of 8 using S3/S4 data gives distance up to 40 Mpc in S3, and 90 in S4.

The filtering The templates and filters used in this analysis are based on the BCV template family which are phenomenological templates that incorporate a phase depending on 2 mass-related parameters  0 and   and a frequency dependent amplitude correction proportional to a parameter. The templates are computed in the frequency domain and end at a frequency defined by f cut. The amplitude of the template is

Template bank ● The spacing between templates ensures that 95% of signal to noise ratio of any incoming signals is recovered. ● The bank is defined in the three dimensions of the search. The number of templates fluctuate since the template banks are computed every 2048 seconds taking into account the noise spectral density of each detector. f

Tuning of the search ● Injections are performed in the data sets in order to tune the parameter ( injections in each search). done ● Coincidence parameters in the dimension of the search (time, and two mass parameters) are defined by comparing our background estimate and the recovered injections. done ● Removing triggers which shows suspicious value of alpha (BCV parameter). done ● Applying amplitude cut in H1H2 coincident triggers done ● Applying H1H2 consistency check on H1L1 and H2L1 triggers done ● Delta psi0/ Delta psi3 cut done ● No further tuning to be done in S3/S4.

S3 status ● S3 box is opened ● H1H2L1 : a few triple coincidences consistent with background. ● H1L1 triggers in triple ifo data : gives zero lag consistent with time slide histograms but large snr triggers in L1. ● H1H2 triggers in triple or double ifo data : zero lag consistent with time slides in the triple ifo case, excess in the double ifo case. Large triggers appears. ● Loudest event in H1H2 (Snr of 150 in H1 and 23 in H2) partly investigated : noise in sensing control.

S3 to be done ● Final efficiencies – Efficiencies in single detector done – Final efficiencies in coincidence using the final loudest events to be done ● Upper limits ● Investigation on the relevant candidates.

S4 status ● Tuning is done. ● Time slides and zero lag triggers investigated on playground data : H1L1, H2L1 coincidences in triple ifos data give consistent rates. ● No triple coincidences ● H1H2 gives a slight excess of rate in triple ifo data. Some have been investigated leading to improvement in the veto segment list. ● H1H2 zero lag in double data is consistent with background. ● Investigations done of some of the loudest triggers : interpretation on going.

Conclusions ● S3 : box opened. The zero lag triggers are consistent with time slides rates although some excess appears in H1H2. – To be done ● Investigations on the loudest triggers ● Final efficiencies and upper limits ● S4 : box to be opened in a time scale of 2-3 weeks once final investigations on the loudest triggers is done. – To be done ● Final efficiencies and upper limits