[1] Cody Messick et al. Analysis framework for the prompt discovery of compact
binary mergers in gravitational-wave data. Phys. Rev. D, 95:042001, Feb
2017.
[2] Alexander H. Nitz, Tito Dal Canton, Derek Davis, and Steven Reyes. PyCBC Live: Rapid Detection of Gravitational Waves from Compact Binary
Mergers. 2018.
[3] T. Adams et al. Low-latency analysis pipeline for compact binary coalescences in the advanced gravitational wave detector era. Class. Quant. Grav.,
33(17):175012, 2016.
[4] L. P. Singer and L. R. Price. Rapid bayesian position reconstruction for
gravitational-wave transients. Phys. Rev. D, 93:024013, Jan 2016.
[5] A. Einstein. Die grundlage der allgemeinen relativitätstheorie. Annalen der
Physik, 354(7):769–822, 1916.
[6] B. P. Abbott et al. Observation of gravitational waves from a binary black
hole merger. Phys. Rev. Lett., 116:061102, Feb 2016.
[7] B. P. Abbott, R. Abbott, T. D. Abbott, F. Acernese, K. Ackley, C. Adams,
T. Adams, P. Addesso, R. X. Adhikari, V. B. Adya, and et al. Multimessenger observations of a binary neutron star merger. The Astrophysical
Journal Letters, 848:L12, October 2017.
[8] Michele Maggiore. Gravitational Waves: Volume 1: Theory and Experiments. Oxford University Press, 2007.
[9] CURT CUTLER and KIP S. THORNE.
AN OVERVIEW OF
GRAVITATIONAL-WAVE SOURCES, pages 72–111.
[10] B. P. Abbott et. al. Multi-messenger observations of a binary neutron star
merger. The Astrophysical Journal, 848(2):L12, oct 2017.
[11] GraceDB. https://gracedb.ligo.org. (Cited April 2019).
[12] Hiroki Takeda et al. Prospects for gravitational-wave polarization tests from
compact binary mergers with future ground-based detectors. Phys. Rev. D,
100:042001, Aug 2019.
[13] B. P. Abbott et al. A gravitational-wave standard siren measurement of the
Hubble constant. Nature, 551(7678):85–88, 2017.
287
[14] Adam G. Riess, Lucas M. Macri, Samantha L. Hoffmann, Dan Scolnic,
Stefano Casertano, Alexei V. Filippenko, Brad E. Tucker, Mark J. Reid,
David O. Jones, Jeffrey M. Silverman, Ryan Chornock, Peter Challis, Wenlong Yuan, Peter J. Brown, and Ryan J. Foley. A 2.4% DETERMINATION
OF THE LOCAL VALUE OF THE HUBBLE CONSTANT. The Astrophysical Journal, 826(1):56, jul 2016.
[15] Planck Collaboration and P. A. R. Ade et. al. Planck 2015 results. xiii.
cosmological parameters. A&A, 594:A13, Sep 2016.
[16] B. D. Metzger and E. Berger. WHAT IS THE MOST PROMISING ELECTROMAGNETIC COUNTERPART OF a NEUTRON STAR BINARY
MERGER? The Astrophysical Journal, 746(1):48, jan 2012.
[17] C Markakis, J S Read, M Shibata, K Uryū, J D E Creighton, J L Friedman,
and B D Lackey. Neutron star equation of state via gravitational wave
observations. Journal of Physics: Conference Series, 189:012024, oct 2009.
[18] Eemeli Annala, Tyler Gorda, Aleksi Kurkela, and Aleksi Vuorinen.
Gravitational-wave constraints on the neutron-star-matter equation of state.
Phys. Rev. Lett., 120:172703, Apr 2018.
[19] Christian D Ott. The gravitational-wave signature of core-collapse supernovae. Classical and Quantum Gravity, 26(6):063001, feb 2009.
[20] Takami Kuroda, Kei Kotake, and Tomoya Takiwaki.
A NEW
GRAVITATIONAL-WAVE SIGNATURE FROM STANDING ACCRETION SHOCK INSTABILITY IN SUPERNOVAE. The Astrophysical Journal, 829(1):L14, sep 2016.
[21] Thibault Damour and Alexander Vilenkin. Gravitational radiation from cosmic (super)strings: Bursts, stochastic background, and observational windows. Phys. Rev. D, 71:063510, Mar 2005.
[22] K. Kawabe. PhD Thesis, University of Tokyo. 1998.
[23] Akito Araya, Akiteru Takamori, Wataru Morii, Kouseki Miyo, Masatake
Ohashi, Kazuhiro Hayama, Takashi Uchiyama, Shinji Miyoki, and Yoshio
Saito. Design and operation of a 1500-m laser strainmeter installed at an
underground site in kamioka, japan. Earth, Planets and Space, 69(1):77,
2017.
[24] William J. Startin, Mark A. Beilby, and Peter R. Saulson. Mechanical
quality factors of fused silica resonators. Review of Scientific Instruments,
69(10):3681–3689, 1998.
288
[25] S. Rowan, G. Cagnoli, P. Sneddon, J. Hough, R. Route, E.K. Gustafson,
M.M. Fejer, and V. Mitrofanov. Investigation of mechanical loss factors of
some candidate materials for the test masses of gravitational wave detectors.
Physics Letters A, 265(1):5 – 11, 2000.
[26] T Tomaru, T Suzuki, T Uchiyama, A Yamamoto, T Shintomi, C.T Taylor, K Yamamoto, S Miyoki, M Ohashi, and K Kuroda. Maximum heat
transfer along a sapphire suspension fiber for a cryogenic interferometric
gravitational wave detector. Physics Letters A, 301(3):215 – 219, 2002.
[27] M. G. Beker. PhD Thesis, Vrije Universiteit. 2013.
[28] Eric D. Black. An introduction to pound–drever–hall laser frequency stabilization. American Journal of Physics, 69(1):79–87, 2001.
[29] Adam J. Mullavey, Bram J. J. Slagmolen, John Miller, Matthew Evans, Peter
Fritschel, Daniel Sigg, Sam J. Waldman, Daniel A. Shaddock, and David E.
McClelland. Arm-length stabilisation for interferometric gravitational-wave
detectors using frequency-doubled auxiliary lasers. Opt. Express, 20(1):81–
89, Jan 2012.
[30] Xavier Siemens, Bruce Allen, Jolien Creighton, Martin Hewitson, and
Michael Landry. Making h(t) for LIGO. Classical and Quantum Gravity,
21(20):S1723–S1735, sep 2004.
[31] B. P. Abbott and et. al. Calibration of the advanced ligo detectors for
the discovery of the binary black-hole merger gw150914. Phys. Rev. D,
95:062003, Mar 2017.
[32] Y. Aso et al. Interferometer design of the kagra gravitational wave detector.
Phys. Rev. D, 88:043007, Aug 2013.
[33] K. Komori et. al. JGW-T1707038. (Cited March 2020).
[34] K. Somiya.
Detector configuration of kagra–the japanese cryogenic
gravitational-wave detector. Classical and Quantum Gravity, 29(12):124007,
2012.
[35] Y Aso, K Somiya, and O Miyakawa. Length sensing and control strategies for
the LCGT interferometer. Classical and Quantum Gravity, 29(12):124008,
jun 2012.
[36] Jon R. Peterson. Observations and modeling of seismic background noise.
Technical report, 1993. Report.
[37] Seismic noise at KAGRA.
https://gwdoc.icrr.u-tokyo.ac.jp/cgibin/private/DocDB/ShowDocument?docid=10436.
(Cited January
2020).
289
[38] Trillium120QA user’s guide.
https://gwdoc.icrr.u-tokyo.ac.jp/cgibin/private/DocDB/ShowDocument?docid=7554.
(Cited December
2019).
[39] Peter M. Shearer. Introduction to Seismology. Cambridge University Press,
2 edition, 2009.
[40] M. G. Beker, G. Cella, R. DeSalvo, M. Doets, H. Grote, J. Harms, E. Hennes,
V. Mandic, D. S. Rabeling, J. F. J. van den Brand, and C. M. van Leeuwen.
Improving the sensitivity of future gw observatories in the 1–10 hz band:
Newtonian and seismic noise. General Relativity and Gravitation, 43(2):623–
656, Feb 2011.
[41] K. Okutomi. PhD Thesis, SOKENDAI. 2019.
[42] B. P. Abbott et al. Prospects for observing and localizing gravitationalwave transients with advanced ligo and advanced virgo. Living Reviews in
Relativity, 19(1):1, Feb 2016.
[43] L. P. Singer et al. The first two years of electromagnetic follow-up with
advanced ligo and virgo. The Astrophysical Journal, 795(2):105, 2014.
[44] T. Sekiguchi. PhD Thesis, University of Tokyo. 2016.
[45] Y. Fujii. Master’s Thesis, University of Tokyo. 2017.
[46] Y Akiyama et. al. Vibration isolation system with a compact damping system
for power recycling mirrors of KAGRA. Classical and Quantum Gravity,
36(9):095015, apr 2019.
[47] Bruce Allen, Warren G. Anderson, Patrick R. Brady, Duncan A. Brown,
and Jolien D. E. Creighton. Findchirp: An algorithm for detection of gravitational waves from inspiraling compact binaries. Phys. Rev. D, 85:122006,
Jun 2012.
[48] Rana X. Adhikari. Gravitational radiation detection with laser interferometry. Rev. Mod. Phys., 86:121–151, Feb 2014.
[49] Stephen Fairhurst. Triangulation of gravitational wave sources with a network of detectors. New Journal of Physics, 11(12):123006, dec 2009.
[50] L. P. Singer. GW170817 localization and triangulation annuli. 2017.
[51] A. H. Nitz et al. PyCBC Software, http://github.com/ligo-cbc/pycbc. (Cited
April 2020).
290
[52] Samantha A Usman, Alexander H Nitz, Ian W Harry, Christopher M Biwer, Duncan A Brown, Miriam Cabero, Collin D Capano, Tito Dal Canton,
Thomas Dent, Stephen Fairhurst, Marcel S Kehl, Drew Keppel, Badri Krishnan, Amber Lenon, Andrew Lundgren, Alex B Nielsen, Larne P Pekowsky,
Harald P Pfeiffer, Peter R Saulson, Matthew West, and Joshua L Willis.
The PyCBC search for gravitational waves from compact binary coalescence.
Classical and Quantum Gravity, 33(21):215004, oct 2016.
[53] B. P. Abbott et al. Gwtc-1: A gravitational-wave transient catalog of compact binary mergers observed by ligo and virgo during the first and second
observing runs. Phys. Rev. X, 9:031040, Sep 2019.
[54] Surabhi Sachdev et al. The GstLAL Search Analysis Methods for Compact
Binary Mergers in Advanced LIGO’s Second and Advanced Virgo’s First
Observing Runs. 1 2019.
[55] S Klimenko, I Yakushin, A Mercer, and G Mitselmakher. A coherent method
for detection of gravitational wave bursts. Classical and Quantum Gravity,
25(11):114029, may 2008.
[56] J. Veitch et al. Parameter estimation for compact binaries with ground-based
gravitational-wave observations using the lalinference software library. Phys.
Rev. D, 91:042003, Feb 2015.
[57] Neil J Cornish and Tyson B Littenberg. Bayeswave: Bayesian inference for
gravitational wave bursts and instrument glitches. Classical and Quantum
Gravity, 32(13):135012, jun 2015.
[58] Summary page. https://summary.ligo.org/ detchar/summary/O3a/. (Cited
January 2020).
[59] Masaomi Tanaka and Kenta Hotokezaka. RADIATIVE TRANSFER SIMULATIONS OF NEUTRON STAR MERGER EJECTA. The Astrophysical
Journal, 775(2):113, sep 2013.
[60] Shaon Ghosh and Gijs Nelemans. Localizing gravitational wave sources with
optical telescopes and combining electromagnetic and gravitational wave
data. In Carlos F. Sopuerta, editor, Gravitational Wave Astrophysics, pages
51–58, Cham, 2015. Springer International Publishing.
[61] Yoshinori Fujii, Thomas Adams, Frédérique Marion, and Raffaele Flaminio.
Fast localization of coalescing binaries with a heterogeneous network of advanced gravitational wave detectors. Astroparticle Physics, 113:1 – 5, 2019.
[62] B. P. Abbott et al. Implementation and testing of the first prompt search
for gravitational wave transients with electromagnetic counterparts. Astron.
Astrophys., 539:A124, 2012.
291
[63] The LIGO Scientific Collaboration, the Virgo Collaboration, the KAGRA Collaboration, and B. P. Abbott et. al. Prospects for observing and
localizing gravitational-wave transients with advanced ligo, advanced virgo
and kagra, 2013.
[64] Henry A. Sodano, Jae-Sung Bae, Daniel J. Inman, and W. Keith Belvin.
Improved Concept and Model of Eddy Current Damper. Journal of Vibration
and Acoustics, 128(3):294–302, 11 2005.
[65] A. Takamori. PhD Thesis, University of Tokyo. 2002.
[66] G. Cella, V. Sannibale, R. DeSalvo, S. Márka, and A. Takamori. Monolithic
geometric anti-spring blades. Nuclear Instruments and Methods in Physics
Research Section A: Accelerators, Spectrometers, Detectors and Associated
Equipment, 540(2):502 – 519, 2005.
[67] Alberto Stochino, Riccardo DeSalvo, Yumei Huang, and Virginio Sannibale.
Improvement of the seismic noise attenuation performance of the monolithic
geometric anti-spring filters for gravitational wave interferometric detectors.
Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 580(3):1559 –
1564, 2007.
[68] L. Trozzo. PhD Thesis, Universitá di Siena. 2018.
[69] F Matichard et al. Seismic isolation of advanced LIGO: Review of strategy, instrumentation and performance. Classical and Quantum Gravity,
32(18):185003, aug 2015.
[70] Y. Sakakibara. PhD Thesis, University of Tokyo. 2015.
[71] T. Yamada. Master’s Thesis, University of Tokyo. 2018.
[72] T. Ochi. Master’s Thesis, University of Tokyo. 2018.
[73] F. Cordero, F. Corvasce, R. Franco, G. Paparo, E. Maiorana, P. Rapagnani,
F. Ricci, S. Braccini, C. Casciano, R. De Salvo, F. Frasconi, R. Passaquieti,
M. De Sanctis, A. Solina, and R. Valentini. Elastic and anelastic properties
of marval 18 steel. Journal of Alloys and Compounds, 310(1):400 – 404,
2000. Intern. Conf. Internal Friction and Ultrasonic Attentuation in Solids
(ICIFUAS-12).
[74] Hareem Tariq et al. The linear variable differential transformer (lvdt) position sensor for gravitational wave interferometer low-frequency controls.
Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 489(1):570 – 576,
2002.
292
[75] Virgo Internal Document. Advanced Virgo Technical Design Report, VIR0128A-12. 2012.
[76] Riccardo Desalvo. Review: Accelerometer development for use in gravitational wave-detection interferometers. Bulletin of the Seismological Society
of America, 99, 05 2009.
[77] R. Sleeman. Three-Channel Correlation Analysis: A New Technique to Measure Instrumental Noise of Digitizers and Seismic Sensors. The Bulletin of
the Seismological Society of America, 96(1):258–271, Feb 2006.
[78] S. Aston. LIGO Internal Document, T050111-04-K. 2009.
[79] S. Zeidler. KAGRA Internal Document, JGW-T1605788. 2016.
[80] M. Fukunaga. Master’s Thesis, University of Tokyo. 2019.
[81] Yuta Michimura et al. Mirror actuation design for the interferometer control
of the KAGRA gravitational wave telescope. Classical and Quantum Gravity,
34(22):225001, oct 2017.
[82] A. Shoda et al. KAGRA Internal Document, JGW-T1604756. 2016.
[83] M. A. Barton et al. KAGRA Internal Document, JGW-E1504235. 2017.
[84] KAGRA Logbook. http://klog.icrr.u-tokyo.ac.jp/osl/?c=1. (Cited February
2020).
[85] K. Izumi. Master’s Thesis, University of Tokyo. 2009.
[86] Y. Michimura Y. Enomoto and K. Izumi. KAGRA Internal Document,
JGW-T1808343. 2018.
[87] Y. Michimura. KAGRA Internal Document, JGW-T1202403. 2014.
[88] 3D rigid body suspension modeling tool.
https://gwdoc.icrr.utokyo.ac.jp/cgi-bin/private/DocDB/ShowDocument?docid=3729.
(Cited
January 2020).
[89] KAGRA
wiki
page
for
ETMX.
http://gwwiki.icrr.utokyo.ac.jp/JGWwiki/KAGRA/Subgroups/VIS/TypeA/ETMX.
(Cited
January 2020).
[90] D. Martynov. PhD Thesis, California Institute of Technology. 2015.
[91] J. Abadie et al. Sensitivity Achieved by the LIGO and Virgo Gravitational
Wave Detectors during LIGO’s Sixth and Virgo’s Second and Third Science
Runs. 2012.
293
[92] M. Barsanti, M. Beghini, F. Frasconi, R. Ishak, B.D. Monelli, and R. Valentini. Experimental study of hydrogen embrittlement in maraging steels.
Procedia Structural Integrity, 8:501 – 508, 2018. AIAS2017 - 46th Conference on Stress Analysis and Mechanical Engineering Design, 6-9 September
2017, Pisa, Italy.
294
...
論文の公開元へ
