English
Related papers

Related papers: Millisecond Pulsars: Detectable Sources of Continu…

200 papers

Abbreviated: We investigate the potential of detecting the gravitational wave from individual binary black hole systems using pulsar timing arrays (PTAs) and calculate the accuracy for determining the GW properties. This is done in a…

High Energy Astrophysical Phenomena · Physics 2015-05-27 K. J. Lee , N. Wex , M. Kramer , B. W. Stappers , C. G. Bassa , G. H. Janssen , R. Karuppusamy , R. Smits

We use recent population synthesis results to investigate the distribution of pulsars in the frequency space, having a gravitational strain high enough to be detected by the future generations of laser beam interferometers. We find that…

Astrophysics · Physics 2008-11-26 Tania Regimbau , Jose Antonio de Freitas Pacheco

Millisecond pulsars represent an evolutionarily distinct group among rotation-powered pulsars. Outside the radio band, the soft X-ray range ($\sim 0.1$--10 keV) is most suitable for studying radiative mechanisms operating in these…

Astrophysics · Physics 2008-11-26 Vyacheslav E. Zavlin

The Crab pulsar belongs to one of the most studied stellar objects in the sky. Since its accidental detection in 1968, its pulsed emission has been observed throughout most of the electromagnetic spectrum. Although currently one of more…

Solar and Stellar Astrophysics · Physics 2015-11-18 Natalia Lewandowska

Pulsars can be used to search for stochastic backgrounds of gravitational waves of cosmological origin within the very low frequency band (VLF), $10^{-7}$ to $10^{-9}$ Hz. We propose to construct a special 50 m radio telescope. Regular…

Astrophysics · Physics 2008-11-26 Shou-Guan Wang , Zong-Hong Zhu , Zhen-Long Zou , Yuan-Zhong Zhang

We present direct upper limits on gravitational wave emission from the Crab pulsar using data from the first nine months of the fifth science run of the Laser Interferometer Gravitational-wave Observatory (LIGO). These limits are based on…

Astrophysics · Physics 2017-01-23 The LIGO Scientific Collaboration , B. Abbott , R. Abbott , R. Adhikari , P. Ajith , B. Allen , G. Allen , R. Amin , S. B. Anderson , W. G. Anderson , M. A. Arain , M. Araya , H. Armandula , P. Armor , Y. Aso , S. Aston , P. Aufmuth , C. Aulbert , S. Babak , S. Ballmer , H. Bantilan , B. C. Barish , C. Barker , D. Barker , B. Barr , P. Barriga , M. A. Barton , M. Bastarrika , K. Bayer , J. Betzwieser , P. T. Beyersdorf , I. A. Bilenko , G. Billingsley , R. Biswas , E. Black , K. Blackburn , L. Blackburn , D. Blair , B. Bland , T. P. Bodiya , L. Bogue , R. Bork , V. Boschi , S. Bose , P. R. Brady , V. B. Braginsky , J. E. Brau , M. Brinkmann , A. Brooks , D. A. Brown , G. Brunet , A. Bullington , A. Buonanno , O. Burmeister , R. L. Byer , L. Cadonati , G. Cagnoli , J. B. Camp , J. Cannizzo , K. Cannon , J. Cao , L. Cardenas , T. Casebolt , G. Castaldi , C. Cepeda , E. Chalkley , P. Charlton , S. Chatterji , S. Chelkowski , Y. Chen , N. Christensen , D. Clark , J. Clark , T. Cokelaer , R. Conte , D. Cook , T. Corbitt , D. Coyne , J. D. E. Creighton , A. Cumming , L. Cunningham , R. M. Cutler , J. Dalrymple , K. Danzmann , G. Davies , D. DeBra , J. Degallaix , M. Degree , V. Dergachev , S. Desai , R. DeSalvo , S. Dhurandhar , M. Díaz , J. Dickson , A. Dietz , F. Donovan , K. L. Dooley , E. E. Doomes , R. W. P. Drever , I. Duke , J. -C. Dumas , R. J. Dupuis , J. G. Dwyer , C. Echols , A. Effler , P. Ehrens , E. Espinoza , T. Etzel , T. Evans , S. Fairhurst , Y. Fan , D. Fazi , H. Fehrmann , M. M. Fejer , L. S. Finn , K. Flasch , N. Fotopoulos , A. Freise , R. Frey , T. Fricke , P. Fritschel , V. V. Frolov , M. Fyffe , J. Garofoli , I. Gholami , J. A. Giaime , S. Giampanis , K. D. Giardina , K. Goda , E. Goetz , L. Goggin , G. González , S. Gossler , R. Gouaty , A. Grant , S. Gras , C. Gray , M. Gray , R. J. S. Greenhalgh , A. M. Gretarsson , F. Grimaldi , R. Grosso , H. Grote , S. Grunewald , M. Guenther , E. K. Gustafson , R. Gustafson , B. Hage , J. M. Hallam , D. Hammer , C. Hanna , J. Hanson , J. Harms , G. Harry , E. Harstad , K. Hayama , T. Hayler , J. Heefner , I. S. Heng , M. Hennessy , A. Heptonstall , M. Hewitson , S. Hild , E. Hirose , D. Hoak , D. Hosken , J. Hough , S. H. Huttner , D. Ingram , M. Ito , A. Ivanov , B. Johnson , W. W. Johnson , D. I. Jones , ÂG. Jones , R. Jones , L. Ju , P. Kalmus , V. Kalogera , S. Kamat , J. Kanner , D. Kasprzyk , E. Katsavounidis , K. Kawabe , S. Kawamura , F. Kawazoe , W. Kells , D. G. Keppel , F. Ya. Khalili , R. Khan , E. Khazanov , C. Kim , P. King , J. S. Kissel , S. Klimenko , K. Kokeyama , V. Kondrashov , R. K. Kopparapu , D. Kozak , I. Kozhevatov , B. Krishnan , P. Kwee , P. K. Lam , M. Landry , M. M. Lang , B. Lantz , A. Lazzarini , M. Lei , N. Leindecker , V. Leonhardt , I. Leonor , K. Libbrecht , H. Lin , P. Lindquist , N. A. Lockerbie , D. Lodhia , M. Lormand , P. Lu , M. Lubinski , A. Lucianetti , H. Lück , B. Machenschalk , M. MacInnis , M. Mageswaran , K. Mailand , V. Mandic , S. Márka , Z. Márka , A. Markosyan , J. Markowitz , E. Maros , I. Martin , R. M. Martin , J. N. Marx , K. Mason , F. Matichard , L. Matone , R. Matzner , N. Mavalvala , R. McCarthy , D. E. McClelland , S. C. McGuire , M. McHugh , G. McIntyre , G. McIvor , D. McKechan , K. McKenzie , T. Meier , A. Melissinos , G. Mendell , R. A. Mercer , S. Meshkov , C. J. Messenger , D. Meyers , J. Miller , J. Minelli , S. Mitra , V. P. Mitrofanov , G. Mitselmakher , R. Mittleman , O. Miyakawa , B. Moe , S. Mohanty , G. Moreno , K. Mossavi , C. MowLowry , G. Mueller , S. Mukherjee , H. Mukhopadhyay , H. Müller-Ebhardt , J. Munch , P. Murray , E. Myers , J. Myers , T. Nash , J. Nelson , G. Newton , A. Nishizawa , K. Numata , J. O'Dell , G. Ogin , B. O'Reilly , R. O'Shaughnessy , D. J. Ottaway , R. S. Ottens , H. Overmier , B. J. Owen , Y. Pan , C. Pankow , M. A. Papa , V. Parameshwaraiah , P. Patel , M. Pedraza , S. Penn , A. Perreca , T. Petrie , I. M. Pinto , M. Pitkin , H. J. Pletsch , M. V. Plissi , F. Postiglione , M. Principe , R. Prix , V. Quetschke , F. Raab , D. S. Rabeling , H. Radkins , N. Rainer , M. Rakhmanov , M. Ramsunder , H. Rehbein , S. Reid , D. H. Reitze , R. Riesen , K. Riles , B. Rivera , N. A. Robertson , C. Robinson , E. L. Robinson , S. Roddy , A. Rodriguez , A. M. Rogan , J. Rollins , J. D. Romano , J. Romie , R. Route , S. Rowan , A. Rüdiger , L. Ruet , P. Russell , K. Ryan , S. Sakata , M. Samidi , L. Sancho de la Jordana , V. Sandberg , V. Sannibale , S. Saraf , P. Sarin , B. S. Sathyaprakash , S. Sato , P. R. Saulson , R. Savage , P. Savov , S. W. Schediwy , R. Schilling , R. Schnabel , R. Schofield , B. F. Schutz , P. Schwinberg , S. M. Scott , A. C. Searle , B. Sears , F. Seifert , D. Sellers , A. S. Sengupta , P. Shawhan , D. H. Shoemaker , A. Sibley , X. Siemens , D. Sigg , S. Sinha , A. M. Sintes , B. J. J. Slagmolen , J. Slutsky , J. R. Smith , M. R. Smith , N. D. Smith , K. Somiya , B. Sorazu , L. C. Stein , A. Stochino , R. Stone , K. A. Strain , D. M. Strom , A. Stuver , T. Z. Summerscales , K. -X. Sun , M. Sung , P. J. Sutton , H. Takahashi , D. B. Tanner , R. Taylor , R. Taylor , J. Thacker , K. A. Thorne , K. S. Thorne , A. Thüring , K. V. Tokmakov , C. Torres , C. Torrie , G. Traylor , M. Trias , W. Tyler , D. Ugolini , J. Ulmen , K. Urbanek , H. Vahlbruch , C. Van Den Broeck , M. van der Sluys , S. Vass , R. Vaulin , A. Vecchio , J. Veitch , P. Veitch , A. Villar , C. Vorvick , S. P. Vyachanin , S. J. Waldman , L. Wallace , H. Ward , R. Ward , M. Weinert , A. Weinstein , R. Weiss , S. Wen , K. Wette , J. T. Whelan , S. E. Whitcomb , B. F. Whiting , C. Wilkinson , P. A. Willems , H. R. Williams , L. Williams , B. Willke , I. Wilmut , W. Winkler , C. C. Wipf , A. G. Wiseman , G. Woan , R. Wooley , J. Worden , W. Wu , I. Yakushin , H. Yamamoto , Z. Yan , S. Yoshida , M. Zanolin , J. Zhang , L. Zhang , C. Zhao , N. Zotov , M. Zucker , J. Zweizig , G. Santostasi

Gamma radiation from the Crab pulsar wind nebula (PWN) shows significant variability at $\sim100$ MeV energies, recently revealed with spaceborne gamma-ray telescopes. Here we report the results of a systematic search for gamma-ray flares…

High Energy Astrophysical Phenomena · Physics 2020-07-08 Masanori Arakawa , Masaaki Hayashida , Dmitry Khangulyan , Yasunobu Uchiyama

Gravitational waves are tiny disturbances in space-time and are a fundamental, although not yet directly confirmed, prediction of General Relativity. Rapidly rotating neutron stars are one of the possible sources of gravitational radiation…

Astrophysics · Physics 2008-12-03 Aaron Worley , Plamen G. Krastev , Bao-An Li

Pulsars are spinning neutron stars typically observed as pulses emitted at radio wavelengths. These pulsations exhibit a rotational stability that rival the best atomic clocks, making pulsars one of the most important tools for resolving…

High Energy Astrophysical Phenomena · Physics 2025-10-02 Emmanuel Fonseca

Continuous gravitational-wave signals (CWs) are long-lasting quasi-monochromatic gravitational-wave signals expected to be emitted by rapidly-rotating non-axisymmetric neutron stars. Depending on the rotational frequency and sky location of…

General Relativity and Quantum Cosmology · Physics 2024-03-06 Rafel Jaume , Rodrigo Tenorio , Alicia M. Sintes

Magnetic flares and induced oscillations of magnetars (super-magnetized neutron stars) are promising sources of gravitational waves (GWs). We suggest that the GW emission, if any, would last longer than the observed X-ray quasi-periodic…

High Energy Astrophysical Phenomena · Physics 2015-04-23 Kazumi Kashiyama , Kunihito Ioka

We present results from searches of recent LIGO and Virgo data for continuous gravitational wave signals (CW) from spinning neutron stars and for a stochastic gravitational wave background (SGWB). The first part of the talk is devoted to CW…

Instrumentation and Methods for Astrophysics · Physics 2019-08-13 C. Palomba

Pulsar timing experiments aimed at the detection of gravitational radiation have been performed for decades now. With the forthcoming construction of large arrays capable of tracking multiple millisecond pulsars, it is very likely we will…

General Relativity and Quantum Cosmology · Physics 2015-05-27 Marcio Eduardo da Silva Alves , Massimo Tinto

With current terrestrial gravitational wave detectors working at initial design sensitivities, and upgrades and space missions planned, it is likely that in the next five to ten years gravitational radiation will be detected directly from a…

Astrophysics · Physics 2009-11-11 M. Coleman Miller

At nanohertz frequencies gravitational waves (GWs) cause variations in time-of-arrival of pulsar signals potentially measurable via precision timing observations. Here we compute very-low-frequency GW sensitivity constrained by…

General Relativity and Quantum Cosmology · Physics 2015-03-17 Fredrick A. Jenet , J. W. Armstrong , Massimo Tinto

Advanced LIGO and Advanced Virgo are expected to make the first direct detections of gravitational waves (GW) in the next several years. Possible types of GW emission include short-duration bursts, signals from the coalescence of compact…

General Relativity and Quantum Cosmology · Physics 2019-08-15 C. Van Den Broeck

We have conducted a search of 19 southern Galactic globular clusters for sub-millisecond pulsars at 660 MHz with the Parkes 64-m radio telescope. To minimize dispersion smearing we used the CPSR baseband recorder, which samples the 20 MHz…

Astrophysics · Physics 2009-11-06 R. T. Edwards , W. van Straten , M. Bailes

We report the detection of pulsed gamma rays from the Crab pulsar at energies above 100 Gigaelectronvolts (GeV) with the VERITAS array of atmospheric Cherenkov telescopes. The detection cannot be explained on the basis of current pulsar…

Detection of gravitational-wave (GW) sources enables the characterisation of binary compact objects and of their in-spiral. However, other dissipative processes can affect the in-spiral. Here we show that the in-spiral of compact objects…

Solar and Stellar Astrophysics · Physics 2020-02-26 Yonadav Barry Ginat , Hila Glanz , Hagai B. Perets , Evgeni Grishin , Vincent Desjacques

In testing gravity a model-independent way, one of crucial tests is measuring the propagation speed of a gravitational wave (GW). In general relativity, a GW propagates with the speed of light, while in the alternative theories of gravity…

General Relativity and Quantum Cosmology · Physics 2016-06-22 Atsushi Nishizawa