What Does/Will it Mean to be a Gravitational Wave Astronomer

Slides:



Advertisements
Similar presentations
Ed Seidel Assistant Director Directorate for Mathematical and Physical Sciences National Science Foundation October 1, 2010.
Advertisements

Laser Interferometer Gravitational-wave Detectors: Advancing toward a Global Network Stan Whitcomb LIGO/Caltech ICGC, Goa, 18 December 2011 LIGO-G v1.
LIGO-G Z Beating the spin-down limit on gravitational wave emission from the Crab pulsar Michael Landry LIGO Hanford Observatory for the LIGO.
GWDAW9 – Annecy December 15-18, 2004 A. Di Credico Syracuse University LIGO-G Z 1 Gravitational wave burst vetoes in the LIGO S2 and S3 data analyses.
Pulsar Detection and Parameter Estimation with MCMC - Six Parameters Nelson Christensen Physics and Astronomy Carleton College GWDAW December 2003.
A SEARCH FOR GRAVITATIONAL WAVES FROM INSPIRALING NEUTRON STARS AND BLACK HOLES Using data taken between July 2009 and October 2010, researchers from the.
LIGO-G W "Colliding Black Holes" Credit: National Center for Supercomputing Applications (NCSA) LIGO for Chemists Fred Raab, LIGO Hanford Observatory.
Virgo Open Data Plans October 27, 2011 Benoit Mours (LAPP-Annecy) On behalf of the Virgo Collaboration.
LIGO- G W LIGO Update by Fred Raab Local Educators Network LIGO Hanford Observatory October 27, 2005.
LIGO-G W Is there a future for LIGO underground? Fred Raab, LIGO Hanford Observatory.
The LIGO Project ( Laser Interferometer Gravitational-Wave Observatory) Rick Savage – Scientist LIGO Hanford Observatory.
LIGO -- Studying the Fabric of the Universe LIGO-GOxxxx Barry C. Barish National Science Board LIGO Livingston, LA 4-Feb-04.
What are Gravity Waves?. According to Einstein's theory of gravity, an accelerating mass causes the fabric of space-time to ripple like a pond disturbed.
CPEP and Gravitation Lynn Cominsky Sonoma State University.
Sternberg Astronomical Institute of Lomonosov Moscow State University.
LIGO-G M Management of the LIGO Project Gary Sanders California Institute of Technology Presented to the Committee on Programs and Plans of the.
LIGO- G D Status of LIGO Stan Whitcomb ACIGA Workshop 21 April 2004.
LIGO-G Z Peter Shawhan, for the LIGO Scientific Collaboration APS Meeting April 25, 2006 Search for Gravitational Wave Bursts in Data from the.
LIGO-G D “First Lock” for the LIGO Detectors 20 October 2000 LIGO Hanford Observatory Stan Whitcomb.
1SBPI 16/06/2009 Heterodyne detection with LISA for gravitational waves parameters estimation Nicolas Douillet.
Bridging the Gap between Terrestrial Detectors and LISA Elba 2002 May 24, 2002 Seiji Kawamura National Astronomical Observatory of Japan.
Designing A Controlled Experiment.  Some discoveries happen by chance but the standard is for a scientist to begin with forming a question.  The more.
LIGO- G M What Does/Will it Mean to be a Gravitational Wave Astronomer? Reflections from an Instrumentalist Stan Whitcomb Imagining the Future:
SCIENCE A system of knowledge about the natural world and the methods used to find that knowledge.
What infrastructure will contribute to facilitating broad participation, community growth, and the best possible science? John Nousek Cyclical nature of.
LIGO-G Z LIGO at the start of continuous observation Prospects and Challenges Albert Lazzarini LIGO Scientific Collaboration Presentation at NSF.
LIGO-G D LSC Meeting Nov An Early Glimpse at the S3 Run Stan Whitcomb (LIGO–Caltech) LIGO Scientific Collaboration Meeting LIGO Hanford.
DECIGO – Japanese Space Gravitational Wave Detector International Workshop on GPS Meteorology January 17, Tsukuba Center for Institutes Seiji Kawamura*
LIGO- G D Experimental Upper Limit from LIGO on the Gravitational Waves from GRB Stan Whitcomb For the LIGO Scientific Collaboration Informal.
The Scientific Method 5 Steps to Follow!.
LIGO-G M Overview of the LIGO Continuing Operations (FY FY2006) Proposal Gary Sanders LIGO PAC9 Meeting December 2000.
Deci-hertz Interferometer Gravitational Wave Observatory (DECIGO) 7th Gravitational Wave Data Analysis Workshop December 17, International Institute.
Igor Yakushin, December 2004, GWDAW-9 LIGO-G Z Status of the untriggered burst search in S3 LIGO data Igor Yakushin (LIGO Livingston Observatory)
Space Gravitational Wave Antenna DECIGO Project 3rd TAMA Symposium February 7, Institute for Cosmic Ray Research, Japan Seiji Kawamura National.
Gravitational Wave Data Analysis  GW detectors  Signal processing: preparation  Noise spectral density  Matched filtering  Probability and statistics.
Calibration and the status of the photon calibrators Evan Goetz University of Michigan with Peter Kalmus (Columbia U.) & Rick Savage (LHO) 17 October 2006.
LIGO Document G v4 A search for gravitational waves from Cassiopeia A using LIGO S5 data Karl Wette Centre for Gravitational Physics The Australian.
GWDAW11, Potsdam 19/12/06 LIGO-G Z 1 New gravitational wave upper limits for selected millisecond pulsars using LIGO S5 data Matthew Pitkin for.
The Quest for Gravitational Waves: a global strategy
LIGO at a Distance Dale Ingram on behalf of the LIGO Laboratory Public Outreach Team LIGO Hanford Observatory, Richland, WA
What will it mean to be a gravitational wave astronomer?
Low-latency Selection of Gravitational-wave Event Candidates
Dawn II, July 8, 2016 GaTech Organizing the international community: issues, open questions, opportunities Dave Reitze LIGO Laboratory, Caltech LIGO Laboratory.
Current and future ground-based gravitational-wave detectors
LIGO: Laser Interferometer Gravitational-wave Observatory
The Search for Gravitational Waves with Advanced LIGO
Beam Measurement Characterization and Optics Tolerance Analysis of a 900 GHz HEB receiver for the ASTE telescope Alvaro Gonzalez, K. Kaneko, Y. Uzawa.
Is there a future for LIGO underground?
Analysis of LIGO S2 data for GWs from isolated pulsars
A world-shaking discovery
Stochastic background search using LIGO Livingston and ALLEGRO
The Scientific Method 5 Steps to Follow!.
Observational Astronomy
Observational Astronomy
Cambridge - The Importance of Communication within the Science Community Standard SC.7.N.1.7.
C.E.G.O. China Einstein Gravitational wave Observatory
Chapter 1.1 NOTES: What is Science?.
Chapter 1 Section 1 What is Science?
Scientific Method.
STEPS OF THE SCIENTIFIC METHOD.
Scientific Method (AKA Scientific Problem Solving)
STEPS OF THE SCIENTIFIC METHOD.
Status and Plans for the LIGO-TAMA Joint Data Analysis
Gravitational radiation from known radio pulsars using LIGO data
SCIENTIFIC METHOD By Diana Bivens.
The Scientific Method 5 Steps to Follow!.
QUALITATIVE RESEARCH METHODS 2017
Observing Gravitational Waves(GW) by LIGO
Sci. 1-3 Telescopes- then and Now Pages 18-23
Joint bar-IFO observations
Presentation transcript:

What Does/Will it Mean to be a Gravitational Wave Astronomer What Does/Will it Mean to be a Gravitational Wave Astronomer? Reflections from an Instrumentalist Stan Whitcomb Imagining the Future: Gravitational Wave Astronomy Penn State University 26 October 2004

What Defines a GW Astronomer Now? Member of consortium operating a detector system Participation in data taking and analysis Knowledge of how to build detectors/use data Calibration Instrumental artifacts Interest in GW detection and willingness to help LIGO Scientific Collaboration generally open to new members Patience! Penn State 2004

Complexity of GW Interferometer Data Penn State 2004

Complexity of GW Data Nonstationarity? Beam Patterns Confusion limits? Varying noise levels, Varying noise shapes Frequency dependence of calibration Beam Patterns Confusion limits? Penn State 2004

Any Guidance from Other Astronomical Windows? As graduate student, I participated in the opening of the far-infrared/submillimeter astronomical window 1974-80 as a member of one of a handful of groups making observations between 40 and 600 microns 1975: Everyone I worked with identified themselves as a “far-IR astonomer” Why? 1985: None of them would have Penn State 2004

Why “Far-IR Astronomers”? Most scientists using far-IR observations in 1975: Built their own instruments Decided on their own observing program Developed their own calibration techniques Interpreted their own observation No publicly available data or instruments for use by “outsiders” No need for very sophisticated analyses Back of envelope interpretations sufficed No need for 1% models when calibration errors might be 40% Penn State 2004

Why Did They Change? (and How?) Development of first user facilities for far-IR observations Facility detection systems for 91 cm telescope on Kuiper Airborne Observatory Active promotion of collaborative observing proposals between instrumentalists and non-instrumentalist astronomers Instrumentalists had to collaborate to get observing time Far-IR astronomers realized that their observations alone didn’t answer the important questions More data than instrumentalists could analyze Instrumentalists changed in two directions Some shifted to broader based astronomers Others moved to new frontiers in instrumentation (e.g., polarimetry) Penn State 2004

Will “GW Astronomers” become “Astronomers” in 20 years? Forces driving in that direction: As GW detections become more common, outside astronomical community will become more interested in participating GW astronomers will start to recognize value of observations in other bands and start to perform such observations themselves Techniques and documentation for using GW data will become more accessible More data than instrumentalists can analyze (I hope!) Penn State 2004

Will “GW Astronomers” become “Astronomers” in 20 years? Forces opposing that direction: GW sources may have limited overlap with EM sources Value of joint observations will be high, but numbers may be limited Size of existing GW consortia makes collaboration with smaller groups on limited scope intimidating Existing consortia may become more “proprietary” as high sensitivity data starts to become available Penn State 2004

Some Personal Guesses Most GW researchers will not make a major shift into general astronomy The connections which will develop will be very valuable, but not so numerous The main interest will still be at the edges of detection Penn State 2004