LIGO-G030659-00-Z 1 S2/E10 pulsar injection analysis Réjean Dupuis University of Glasgow 13 November 2003 LSC Meeting, LHO.

Slides:



Advertisements
Similar presentations
LIGO-G Z Beating the spin-down limit on gravitational wave emission from the Crab pulsar Michael Landry LIGO Hanford Observatory for the LIGO.
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.
AURIGA-LIGO Activity F. Salemi Italy, INFN and University of Ferrara for the LIGO-AURIGA JWG 2nd ILIAS-GW Meeting, October 24th and 25th, Palma de Mallorca,
Pulsar Detection and Parameter Estimation with MCMC - Six Parameters Nelson Christensen Physics and Astronomy Carleton College GWDAW December 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.
LIGO-G Z Results from LIGO’s second science run: a search for continuous gravitational waves Michael Landry LIGO Hanford Observatory California.
LIGO Reduced Data Sets E7 standard reduced data set RDS generation for future runs decimation examples LIGO-G Z Isabel Leonor (w/ Robert Schofield)
The search for continuous gravitational waves: analyses from LIGO’s second science run Michael Landry LIGO Hanford Observatory on behalf of the LIGO.
Searching for pulsars using the Hough transform Badri Krishnan AEI, Golm (for the pulsar group) LSC meeting, Hanford November 2003 LIGO-G Z.
1 Known Isolated Pulsars Preliminary S2 Results Réjean Dupuis, Matt Pitkin, Graham Woan LIGO-G Z.
ALLEGRO G Z LSC, Livingston 23 March, Calibration for the ALLEGRO resonant detector -- S2 and S4 Martin McHugh, Loyola University New Orleans.
Systematic effects in gravitational-wave data analysis
LIGO-G W Gregory Mendell, LIGO Hanford Observatory on behalf of the LIGO Scientific Collaboration Stackslide search for continuous gravitational.
CW signals: plans for S2 June the group held a f2f meeting to discuss plans for analyses of S2 data (and beyond). Slides from the various presentations.
1/25 Current results and future scenarios for gravitational wave’s stochastic background G. Cella – INFN sez. Pisa.
LIGO- G Z LSC ASIS Meeting LIGO Scientific Collaboration - University of Wisconsin - Milwaukee 1 S2 Hardware Pulsar Injections Bruce.
Searching for gravitational radiation from Scorpius X-1: Limits from the second LIGO science run Alberto Vecchio on behalf of the LIGO Scientific Collaboration.
10/06/2003LSC WIDE COLLOQUIUM1 LSC Pulsar Group and P Shawhan, S Marka, and S Koranda presented by B Allen, R Dupuis, N Christensen, and X Siemens S2 Hardware.
GWDAW - Annecy December 17 th 2004 LIGO-G Z1 Searching for gravitational waves from known pulsars Matthew Pitkin for the LIGO Scientific Collaboration.
LSC ASIS Meeting LIGO Scientific Collaboration - University of Wisconsin - Milwaukee LIGO-G Z E10/S3 Hardware Pulsar Injections Bruce.
LIGO-G Z LSC Nov 5, Bruce Allen, U. Wisconsin - Milwaukee and AEI
Searching for Gravitational Waves from Binary Inspirals with LIGO Duncan Brown University of Wisconsin-Milwaukee for the LIGO Scientific Collaboration.
LIGO- G D Gravitational Wave Observations with Interferometers: Results and Prospects Stan Whitcomb for the LIGO Scientific Collaboration 2 nd.
LIGO-G E1 Reviewer Report for the S2 Time-Domain Pulsar Search Teviet Creighton, Andri Gretarsson, Fred Raab, B. Sathyaprakash, Peter Shawhan.
LIGO-G v2 The Search For Continuous Gravitational Waves Gregory Mendell, LIGO Hanford Observatory on behalf of the LIGO Science Collaboration The.
LIGO-G Z 1 Setting upper limits on the strength of periodic GWs using the first science data from the LIGO and GEO detectors Bruce Allen, University.
Alicia M. Sintes On behalf of the LIGO Scientific Collaboration LIGO-G Z Results from the LSC Periodic Sources Working Group Recontres de Moriond.
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.
APS meeting, Dallas 22/04/06 1 A search for gravitational wave signals from known pulsars using early data from the LIGO S5 run Matthew Pitkin on behalf.
S3 and S4 pulsars injections Graham Woan, University of Glasgow, For Matt Pitkin Réjean Dupuis PULG … LIGO-G Z.
15-18 December 2004 GWDAW-9 Annecy 1 All-Sky broad band search for continuous waves using LIGO S2 data Yousuke Itoh 1 for the LIGO Scientific Collaboration.
LIGO-G Z TFClusters Tuning for the LIGO-TAMA Search Patrick Sutton LIGO-Caltech.
GW pulsars in binary systems Sco X-1 C Messenger and A Vecchio LSC General Meeting LIGO Livingston Observatory 17 th – 20 th March, 2003 LIGO-G Z.
1 Work of the LSC Pulsar Upper Limits Group (PULG) Graham Woan, University of Glasgow on behalf of the LIGO Scientific Collaboration GWDAW 2003.
LIGO-G07XXXX-00-Z Beating the Crab pulsar spin-down and other upper limits: new results from the LIGO S5 known pulsar search Matthew Pitkin for the LIGO.
Searches for CW signals
Capitalizing on GW polarization bias
Review production of 30min calibrated SFTs well under way (see talks by V.Dergachev., X. Siemens in ASIS/DetChar). Also expect calibrated h(t) in the next.
Xavier Siemens for the LSC University of Wisconsin -- Milwaukee
A 2 veto for Continuous Wave Searches
All-Sky broad band search for continuous waves using LIGO S2 data
Overview of the CW Search Group Efforts – S2 data analyses Michael Landry LIGO Hanford Observatory on behalf of the CW Search Group LSC Meeting March.
S4 Pulsar Search Results from PowerFlux
Crab pulsar search - Preliminary S2 analysis
Searching for pulsars using the Hough transform
on behalf of the LIGO Scientific Collaboration
Sco-X1search : S2 results
Figure Legend: From: Bayesian inference for psychometric functions
S4 Pulsar Search Results from PowerFlux
Periodic Sources Working Group
Analysis of LIGO S2 data for GWs from isolated pulsars
Coherent wide parameter space searches for gravitational waves from neutron stars using LIGO S2 data Xavier Siemens, for the LIGO Scientific Collaboration.
Searching for Gravitational-Wave Bursts (GWBs) associated with Gamma-Ray Bursts (GRBs) during the LIGO S5 run Isabel Leonor University of Oregon (for the.
S3 time domain known pulsar search
S3 time domain known pulsar search
A.M. Sintes for the pulgroup
TwoSpect Scorpius X-1 mock data challenge, September 2013 Evan Goetz (AEI—Hannover), Grant David Meadors, Keith Riles (University of Michigan) TwoSpect.
Matthew Pitkin on behalf of the LIGO Scientific Collaboration
Continuous gravitational waves: Observations vs. theory
Stochastic background search using LIGO Livingston and ALLEGRO
Background estimation in searches for binary inspiral
Coherent Coincident Analysis of LIGO Burst Candidates
Analysis of L1 WaveMon S2 veto triggers
Confidence Ellipse for Bivariate Normal Data
Deanna Emery Mentor: Dick Gustafson
ALLEGRO calibration for the LLO-ALLEGRO stochastic analysis
CW Search Group Efforts – overview Michael Landry LIGO Hanford Observatory on behalf of the CW Search Group LSC Meeting June 6, 2004 Tufts University,
Status and Plans for the LIGO-TAMA Joint Data Analysis
Gravitational radiation from known radio pulsars using LIGO data
Performance of the WaveBurst algorithm on LIGO S2 playground data
Presentation transcript:

LIGO-G Z 1 S2/E10 pulsar injection analysis Réjean Dupuis University of Glasgow 13 November 2003 LSC Meeting, LHO

LIGO-G Z 2 Outline 1.S2 injections and parameter estimation 2.Preliminary look at E10 data

LIGO-G Z 3 Signal is sum of two different pulsars, P1 and P2 P1: Constant Intrinsic Frequency Sky position: latitude (radians) longitude (radians) Signal parameters are defined at SSB GPS time which corresponds to a wavefront passing: LHO at GPS time LLO at GPS time In the SSB the signal is defined by f = Hz fdot = 0 phi = 0 A+ = 1.0 x Ax = 0 [equivalent to iota=pi/2] P2: Spinning Down Sky position: latitude (radians) longitude (radians) Signal parameters are defined at SSB GPS time: SSB , which corresponds to a wavefront passing: LHO at GPS time LLO at GPS time In the SSB at that moment the signal is defined by f= fdot = [phase=2 pi (f dt+1/2 fdot dt^2+...)] phi = 0 A+ = 1.0 x Ax = 0 [equivalent to iota=pi/2] S2 Pulsar Injection Parameters

LIGO-G Z 4 For each signal all parameters were successfully inferred (except a constant 90 degrees phase shift) Four plots were produced for each signal: 1.posterior probability density function of h 0 given the data (marginalized over the other parameters) 2.confidence contour plot of \cos\iota vs h 0 with levels at 67%, 95%, 99%, and 99.9% 3.confidence contour plot of polarisation angle \psi vs h 0 with levels at 67%, 95%, 99%, and 99.9% 4.confidence contour plot of phase \phi_0 vs h 0 with levels at 67%, 95%, 99%, and 99.9% Coherent analysis using data from all sites showed that phase was conserved between sites Full results (with larger images) are posted at (lsc/lsconly) Time Domain Bayesian Analysis

LIGO-G Z 5 L1: p(h 0 | B k ) p(h 0,cos  | B k )p(h 0,  0 | B k ) p(h 0,  | B k ) H1: H2: Results for signal P1

LIGO-G Z 6 p(h 0 | B k ) p(h 0,cos  | B k )p(h 0,  0 | B k ) p(h 0,  | B k ) L1: H1: H2: Results for signal P2

LIGO-G Z 7 Joint Coherent Analysis p(a|all data) = p(a|H1) p(a|H2) p(a|L1) Signal P1Signal P2 individual IFOs all IFOs

LIGO-G Z 8 E10 Pulsar injection parameters Pulsar 0 f  Hz  0  2.66   0.77 cos   0.80 RA  1.25 DEC  Pulsar 1 f  Hz  0  1.28   0.36 cos   0.46 RA  0.65 DEC  Pulsar 2 f  Hz  0  4.03   cos   RA  3.76 DEC  0.06 Pulsar 3 f  Hz  0  5.53   0.44 cos   RA  3.11 DEC  Pulsar 4 f  Hz  0  4.83   cos   0.28 RA  4.89 DEC  Injected a total of 10 pulsars; 5 to be reserved for blind searches Locked data only available from H1 and H2

LIGO-G Z 9 Pulsar 1 p(h 0 | B k ) H1 in black H2 in red PDFs are peaked near h 0 = Approx. 850 minutes of locked data on last day of E10 Injected h 0 = ?

LIGO-G Z 10 Pulsar 1 - p(h 0,cos  | B k ) H1 H2 Injected: cos   0.46 Y-axis range: -1 to 1

LIGO-G Z 11 Pulsar 1 - p(h 0,  0 | B k ) H1H2 Injected:  0  1.28 Y-axis range: 0 to 2pi

LIGO-G Z 12 Pulsar 1 - p(h 0,  | B k ) H1 H2 Injected:   0.36 Y-axis range: -pi/4 to pi/4

LIGO-G Z 13 To do Study E10 data more carefully Use MCMC approach for semi-blind search Analyze S3 data