Localization of binary neutron star mergers with second and third generation gravitational-wave detectors
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[1] Y. N. Liu,et al. Multi-messenger Observations of a Binary Neutron Star Merger , 2019, Proceedings of Multifrequency Behaviour of High Energy Cosmic Sources - XIII — PoS(MULTIF2019).
[2] R. Sarpong,et al. Bio-inspired synthesis of xishacorenes A, B, and C, and a new congener from fuscol† †Electronic supplementary information (ESI) available. See DOI: 10.1039/c9sc02572c , 2019, Chemical science.
[3] S. Fairhurst. Localization of transient gravitational wave sources: beyond triangulation , 2017, 1712.04724.
[4] Wen Zhao,et al. Localization accuracy of compact binary coalescences detected by the third-generation gravitational-wave detectors and implication for cosmology , 2017, 1710.05325.
[5] B. A. Boom,et al. GW170608: Observation of a 19 Solar-mass Binary Black Hole Coalescence , 2017, 1711.05578.
[6] P. Cowperthwaite,et al. The Combined Ultraviolet, Optical, and Near-infrared Light Curves of the Kilonova Associated with the Binary Neutron Star Merger GW170817: Unified Data Set, Analytic Models, and Physical Implications , 2017, 1710.11576.
[7] Larry Denneau,et al. A kilonova as the electromagnetic counterpart to a gravitational-wave source , 2017, Nature.
[8] B. A. Boom,et al. GW170817: Observation of Gravitational Waves from a Binary Neutron Star Inspiral. , 2017, Physical review letters.
[9] K. Ulaczyk,et al. The Emergence of a Lanthanide-Rich Kilonova Following the Merger of Two Neutron Stars , 2017, 1710.05455.
[10] M. Serra-Ricart,et al. MASTER Optical Detection of the First LIGO/Virgo Neutron Star Binary Merger GW170817 , 2017, 1710.05461.
[11] B. Metzger,et al. Origin of the heavy elements in binary neutron-star mergers from a gravitational-wave event , 2017, Nature.
[12] Dovi Poznanski,et al. Optical emission from a kilonova following a gravitational-wave-detected neutron-star merger , 2017, Nature.
[13] T. Sakamoto,et al. The X-ray counterpart to the gravitational-wave event GW170817 , 2017, Nature.
[14] Texas Tech University,et al. Multi-messenger observations of a binary neutron star merger , 2017, 1710.05833.
[15] M. M. Kasliwal,et al. A radio counterpart to a neutron star merger , 2017, Science.
[16] P. B. Covas,et al. Gravitational Waves and Gamma-rays from a Binary Neutron Star Merger: GW170817 and GRB 170817A , 2017, 1710.05834.
[17] Armin Rest,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. I. Discovery of the Optical Counterpart Using the Dark Energy Camera , 2017, The Astrophysical Journal.
[18] Saurabh W. Jha,et al. The Discovery of the Electromagnetic Counterpart of GW170817: Kilonova AT 2017gfo/DLT17ck , 2017, 1710.05854.
[19] E. Bozzo,et al. INTEGRAL Detection of the First Prompt Gamma-Ray Signal Coincident with the Gravitational-wave Event GW170817 , 2017, 1710.05449.
[20] Kazuya Matsubayashi,et al. J-GEM observations of an electromagnetic counterpart to the neutron star merger GW170817 , 2017, 1710.05848.
[21] Chris L. Fryer,et al. Swift and NuSTAR observations of GW170817: Detection of a blue kilonova , 2017, Science.
[22] D. Frail,et al. Illuminating gravitational waves: A concordant picture of photons from a neutron star merger , 2017, Science.
[23] J. Prieto,et al. Light curves of the neutron star merger GW170817/SSS17a: Implications for r-process nucleosynthesis , 2017, Science.
[24] J. Prochaska,et al. Swope Supernova Survey 2017a (SSS17a), the optical counterpart to a gravitational wave source , 2017, Science.
[25] A. Rest,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. VIII. A Comparison to Cosmological Short-duration Gamma-Ray Bursts , 2017, 1710.05438.
[26] J. Frieman,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. VII. Properties of the Host Galaxy and Constraints on the Merger Timescale , 2017, 1710.05458.
[27] C. Guidorzi,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. VI. Radio Constraints on a Relativistic Jet and Predictions for Late-time Emission from the Kilonova Ejecta , 2017, 1710.05457.
[28] C. Guidorzi,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. V. Rising X-Ray Emission from an Off-axis Jet , 2017, 1710.05431.
[29] A. Rest,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. IV. Detection of Near-infrared Signatures of r-process Nucleosynthesis with Gemini-South , 2017, 1710.05454.
[30] A. Rest,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. III. Optical and UV Spectra of a Blue Kilonova from Fast Polar Ejecta , 2017, 1710.05456.
[31] Jr.,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. II. UV, Optical, and Near-infrared Light Curves and Comparison to Kilonova Models , 2017, 1710.05840.
[32] R. Nichol,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. I. Dark Energy Camera Discovery of the Optical Counterpart , 2017, 1710.05459.
[33] C. A. Wilson-Hodge,et al. An Ordinary Short Gamma-Ray Burst with Extraordinary Implications: Fermi-GBM Detection of GRB 170817A , 2017, 1710.05446.
[34] J. K. Blackburn,et al. A gravitational-wave standard siren measurement of the Hubble constant , 2017, Nature.
[35] A. Molino,et al. Observations of the First Electromagnetic Counterpart to a Gravitational-wave Source by the TOROS Collaboration , 2017, 1710.05844.
[36] B. A. Boom,et al. GW170814: A Three-Detector Observation of Gravitational Waves from a Binary Black Hole Coalescence. , 2017, Physical review letters.
[37] Matteo Cantiello,et al. Off-axis Prompt X-Ray Transients from the Cocoon of Short Gamma-Ray Bursts , 2017, 1709.01468.
[38] M. Evans,et al. Frequency-dependent responses in third generation gravitational-wave detectors , 2017, 1708.06843.
[39] B. A. Boom,et al. GW170104: Observation of a 50-Solar-Mass Binary Black Hole Coalescence at Redshift 0.2. , 2017, Physical review letters.
[40] Alexander H. Nitz,et al. Detecting Binary Compact-object Mergers with Gravitational Waves: Understanding and Improving the Sensitivity of the PyCBC Search , 2017, 1705.01513.
[41] Y. Wang,et al. All-sky search for short gravitational-wave bursts in the first Advanced LIGO run , 2016, 1611.02972.
[42] B. Metzger,et al. Kilonovae , 2016, Living Reviews in Relativity.
[43] M. Evans,et al. Parameter estimation for binary black holes with networks of third-generation gravitational-wave detectors , 2016, 1610.06917.
[44] Tao Yang,et al. Estimating cosmological parameters by the simulated data of gravitational waves from the Einstein Telescope , 2016, 1608.08008.
[45] Y. Wang,et al. Calibration of the Advanced LIGO detectors for the discovery of the binary black-hole merger GW150914 , 2016, 1602.03845.
[46] W. F. Ong,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/VIRGO GW170817. II. UV, Optical, and Near-IR Light Curves and Comparison to Kilonova Models , 2017 .
[47] W. F. Ong,et al. THE ELECTROMAGNETIC COUNTERPART OF THE BINARY NEUTRON STAR MERGER LIGO/VIRGO GW170817. VII. PROPERTIES OF THE HOST GALAXY AND CONSTRAINTS ON THE MERGER TIMESCALE , 2017 .
[48] W. F. Ong,et al. The Electromagnetic Counterpart of the Binary Neutron Star Merger LIGO/Virgo GW170817. V. Rising X-Ray Emission from an Off-axis Jet , 2017, 1710.05431.
[49] B. A. Boom,et al. Search for Gravitational Waves Associated with Gamma-Ray Bursts during the First Advanced LIGO Observing Run and Implications for the Origin of GRB 150906B , 2016, 1611.07947.
[50] Kazuya Matsubayashi,et al. J-GEM follow-up observations of the gravitational wave source GW151226 , 2016, 1611.01588.
[51] Y. Wang,et al. Exploring the sensitivity of next generation gravitational wave detectors , 2016, 1607.08697.
[52] Y. Wang,et al. Upper limits on the rates of binary neutron star and neutron-star--black-hole mergers from Advanced LIGO's first observing run , 2016, 1607.07456.
[53] B. A. Boom,et al. Binary Black Hole Mergers in the First Advanced LIGO Observing Run , 2016, 1606.04856.
[54] R. Nichol,et al. A DECAM SEARCH FOR AN OPTICAL COUNTERPART TO THE LIGO GRAVITATIONAL-WAVE EVENT GW151226 , 2016, 1606.04538.
[55] Meng-Ru Wu,et al. RADIOACTIVITY AND THERMALIZATION IN THE EJECTA OF COMPACT OBJECT MERGERS AND THEIR IMPACT ON KILONOVA LIGHT CURVES , 2016, 1605.07218.
[56] P. Giommi,et al. Localization and broadband follow-up of the gravitational-wave transient GW150914 , 2016, 1602.08492.
[57] B. Gibson,et al. Pan-STARRS and PESSTO search for an optical counterpart to the LIGO gravitational-wave source GW150914 , 2016, 1602.04156.
[58] Y. Wang,et al. GW150914: First results from the search for binary black hole coalescence with Advanced LIGO. , 2016, Physical review. D..
[59] Zhihui Du,et al. Gravitational wave astrophysics, data analysis and multimessenger astronomy , 2015, ArXiv.
[60] D. Meacher,et al. Second Einstein Telescope mock data and science challenge: Low frequency binary neutron star data analysis , 2015, 1511.01592.
[61] I. W. Harry,et al. Fully-coherent all-sky search for gravitational-waves from compact binary coalescences , 2015, 1509.03426.
[62] N. M. Brown,et al. Prospects for Observing and Localizing Gravitational-Wave Transients with Advanced LIGO and Advanced Virgo , 2013, Living Reviews in Relativity.
[63] Lantz,et al. Cryogenically Cooled Ultra Low Vibration Silicon Mirrors for GW Observatories , 2016 .
[64] Ulrike Goldschmidt,et al. Three Hundred Years Of Gravitation , 2016 .
[65] Brian D. Metzger,et al. Electromagnetic Signatures of Neutron Star Mergers in the Advanced LIGO Era , 2015, 1512.05435.
[66] Leo P. Singer,et al. WHOOMP! (There it is): Rapid Bayesian position reconstruction for gravitational-wave transients , 2015 .
[67] E. Berger,et al. A COMPREHENSIVE STUDY OF DETECTABILITY AND CONTAMINATION IN DEEP RAPID OPTICAL SEARCHES FOR GRAVITATIONAL WAVE COUNTERPARTS , 2015, 1503.07869.
[68] C. A. Oxborrow,et al. Planck2015 results , 2015, Astronomy & Astrophysics.
[69] P. Graff,et al. Parameter estimation for compact binaries with ground-based gravitational-wave observations using the LALInference software library , 2014, 1409.7215.
[70] Martin Hendry,et al. Global optimization for future gravitational wave detector sites , 2014, 1409.2875.
[71] T. Canton. Efficient searches for spinning compact binaries with advanced gravitational-wave observatories , 2015 .
[72] S. Klimenko,et al. Advanced LIGO , 2014, 1411.4547.
[73] P. Graff,et al. PARAMETER ESTIMATION FOR BINARY NEUTRON-STAR COALESCENCES WITH REALISTIC NOISE DURING THE ADVANCED LIGO ERA , 2014, 1411.6934.
[74] S. Fairhurst,et al. Improved methods for detecting gravitational waves associated with short gamma-ray bursts , 2014, 1410.6042.
[75] D. Meacher,et al. REVISITING COINCIDENCE RATE BETWEEN GRAVITATIONAL WAVE DETECTION AND SHORT GAMMA-RAY BURST FOR THE ADVANCED AND THIRD GENERATION , 2014, 1410.2739.
[76] S. Fairhurst,et al. PROSPECTS FOR JOINT GRAVITATIONAL WAVE AND SHORT GAMMA-RAY BURST OBSERVATIONS , 2014, 1409.8149.
[77] C. Broeck,et al. Advanced Virgo: a second-generation interferometric gravitational wave detector , 2014, 1408.3978.
[78] Philip Graff,et al. THE FIRST TWO YEARS OF ELECTROMAGNETIC FOLLOW-UP WITH ADVANCED LIGO AND VIRGO , 2014, 1404.5623.
[79] D. Meacher,et al. Second Einstein Telescope mock science challenge: Detection of the gravitational-wave stochastic background from compact binary coalescences , 2014, 1404.1134.
[80] S. Fairhurst,et al. Comparison of gravitational wave detector network sky localization approximations , 2013, 1310.7454.
[81] T. Littenberg,et al. BASIC PARAMETER ESTIMATION OF BINARY NEUTRON STAR SYSTEMS BY THE ADVANCED LIGO/VIRGO NETWORK , 2013, 1309.3273.
[82] S. Fairhurst. Improved source localization with LIGO-India , 2012, 1205.6611.
[83] M. Dickinson,et al. Cosmic Star-Formation History , 1996, 1403.0007.
[84] The Ligo Scientific Collaboration. Enhancing the sensitivity of the LIGO gravitational wave detector by using squeezed states of light , 2013, 1310.0383.
[85] Derek K. Jones,et al. Enhanced sensitivity of the LIGO gravitational wave detector by using squeezed states of light , 2013, Nature Photonics.
[86] Hiroaki Yamamoto,et al. Interferometer design of the KAGRA gravitational wave detector , 2013, 1306.6747.
[87] K. Wiersema,et al. A ‘kilonova’ associated with the short-duration γ-ray burst GRB 130603B , 2013, Nature.
[88] E. Berger,et al. AN r-PROCESS KILONOVA ASSOCIATED WITH THE SHORT-HARD GRB 130603B , 2013, 1306.3960.
[89] Ik Siong Heng,et al. Optimal networks of future gravitational-wave telescopes , 2013, 1301.3939.
[90] Mansi Kasliwal,et al. IDENTIFYING ELUSIVE ELECTROMAGNETIC COUNTERPARTS TO GRAVITATIONAL WAVE MERGERS: AN END-TO-END SIMULATION , 2012, 1210.6362.
[91] S. Bose,et al. Scientific objectives of Einstein Telescope , 2012, 1206.0331.
[92] Stephen R. Taylor,et al. Cosmology with the lights off: Standard sirens in the Einstein Telescope era , 2012, 1204.6739.
[93] C. Kochanek,et al. The observed neutron star mass distribution as a probe of the supernova explosion mechanism , 2012, 1204.5478.
[94] C. Broeck,et al. Mock data challenge for the Einstein Gravitational-Wave Telescope , 2012, 1201.3563.
[95] J. Veitch,et al. Estimating parameters of coalescing compact binaries with proposed advanced detector networks , 2011, 1201.1195.
[96] Dimitrios Psaltis,et al. ON THE MASS DISTRIBUTION AND BIRTH MASSES OF NEUTRON STARS , 2012, 1201.1006.
[97] E. Berger,et al. WHAT IS THE MOST PROMISING ELECTROMAGNETIC COUNTERPART OF A NEUTRON STAR BINARY MERGER? , 2011, 1108.6056.
[98] W. D. Pozzo. Inference of cosmological parameters from gravitational waves: Applications to second generation interferometers , 2011, 1108.1317.
[99] C. Messenger,et al. Measuring a cosmological distance-redshift relationship using only gravitational wave observations of binary neutron star coalescences. , 2011, Physical review letters.
[100] Bruce Allen,et al. FINDCHIRP: an algorithm for detection of gravitational waves from inspiraling compact binaries , 2005, gr-qc/0509116.
[101] S. Vitale,et al. Application of asymptotic expansions for maximum likelihood estimators' errors to gravitational waves from inspiraling binary systems: The network case , 2011, 1108.2410.
[102] Daniel E. Holz,et al. LOCALIZING COMPACT BINARY INSPIRALS ON THE SKY USING GROUND-BASED GRAVITATIONAL WAVE INTERFEROMETERS , 2011, 1105.3184.
[103] Bernard F. Schutz,et al. Networks of gravitational wave detectors and three figures of merit , 2011, 1102.5421.
[104] H. Lück,et al. Toward a third generation of gravitational wave observatories , 2011 .
[105] S. Klimenko,et al. Localization of gravitational wave sources with networks of advanced detectors , 2011, 1101.5408.
[106] S. Fairhurst,et al. Targeted coherent search for gravitational waves from compact binary coalescences , 2010, 1012.4939.
[107] S. Fairhurst,et al. Source localization with an advanced gravitational wave detector network , 2010, 1010.6192.
[108] Eric Chassande-Mottin,et al. Multimessenger astronomy with the Einstein Telescope , 2010, 1004.1964.
[109] Benno Willke,et al. The Einstein Telescope: a third-generation gravitational wave observatory , 2010 .
[110] L. Nuttall,et al. Identifying the host galaxy of gravitational wave signals , 2010, 1009.1791.
[111] Benno Willke,et al. The third generation of gravitational wave observatories and their science reach , 2010 .
[112] Linqing Wen,et al. Geometrical Expression for the Angular Resolution of a Network of Gravitational-Wave Detectors , 2010, 1003.2504.
[113] B. Lackey,et al. Tidal deformability of neutron stars with realistic equations of state , 2009, 0911.3535.
[114] S. Fairhurst. Triangulation of gravitational wave sources with a network of detectors , 2009, 0908.2356.
[115] Oxford,et al. Exploring the Optical Transient Sky with the Palomar Transient Factory , 2009, 0906.5355.
[116] B. S. Sathyaprakash,et al. Cosmography with the Einstein Telescope , 2009, 0906.4151.
[117] I. Mandel,et al. Parameter estimation for signals from compact binary inspirals injected into LIGO data , 2009, 0905.1323.
[118] E. S. Phinney,et al. Finding and Using Electromagnetic Counterparts of Gravitational Wave Sources , 2009, 0903.0098.
[119] S. Fairhurst. Triangulation of gravitational wave sources with a network of detectors , 2009 .
[120] I. Mandel,et al. Degeneracies in sky localization determination from a spinning coalescing binary through gravitational wave observations: a Markov-chain Monte Carlo analysis for two detectors , 2008, 0812.4302.
[121] D. McClelland,et al. The Science benefits and preliminary design of the southern hemisphere gravitational wave detector AIGO , 2008 .
[122] A. Perreca,et al. Triple Michelson interferometer for a third-generation gravitational wave detector , 2008, 0804.1036.
[123] Peter Shawhan,et al. LOOC UP: locating and observing optical counterparts to gravitational wave bursts , 2008, 0803.0312.
[124] C. Stubbs,et al. Linking optical and infrared observations with gravitational wave sources through transient variability , 2007, 0712.2598.
[125] Vicky Kalogera,et al. Host Galaxies Catalog Used in LIGO Searches for Compact Binary Coalescence Events , 2007, 0706.1283.
[126] N. Christensen,et al. Coherent Bayesian inference on compact binary inspirals using a network of interferometric gravitational wave detectors , 2006, gr-qc/0609131.
[127] N. Leroy,et al. Reconstruction of source location in a network of gravitational wave interferometric detectors , 2006, gr-qc/0609118.
[128] D. Lamb,et al. A Study of Compact Object Mergers as Short Gamma-Ray Burst Progenitors , 2006, astro-ph/0601458.
[129] T. Piran,et al. The BATSE-Swift luminosity and redshift distributions of short-duration GRBs , 2005, astro-ph/0511239.
[130] Tx,et al. Constraint Likelihood analysis for a network of gravitational wave detectors , 2005, gr-qc/0508068.
[131] J. Dunlop,et al. The star-formation history of the Universe from the stellar populations of nearby galaxies , 2004, Nature.
[132] J. Sylvestre. Position estimation from a network of interferometers , 2004 .
[133] J. Sylvestre. Prospects for the Detection of Electromagnetic Counterparts to Gravitational Wave Events , 2003, astro-ph/0303512.
[134] A. Pai,et al. A data-analysis strategy for detecting gravitational-wave signals from inspiraling compact binaries with a network of laser-interferometric detectors , 2000, gr-qc/0009078.
[135] T. Totani. Cosmological Gamma-Ray Bursts and Evolution of Galaxies , 1997, astro-ph/9707051.
[136] B. Schutz. Determining the Hubble constant from gravitational wave observations , 1986, Nature.