PSR J1918-0642 , the SIMBAD biblio

PSR J1918-0642 , the SIMBAD biblio (146 results) C.D.S. - SIMBAD4 rel 1.8 - 2026.10.17CEST08:49:09

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Bibcode/DOI Score in Title|Abstract|
Keywords 		in a table in teXt, Caption, ... Nb occurence Nb objects in ref Citations
(from ADS) 		Title First 3 Authors
2001ApJ...553..801E 30 41 Recycled pulsars discovered at high radio frequency. EDWARDS R.T. and BAILES M.
2002MNRAS.337.1004W 34 36 Population synthesis of wide binary millisecond pulsars. WILLEMS B. and KOLB U.
2003A&A...407..273E 16 33 Pulse-to-pulse intensity modulation and drifting subpulses in recycled pulsars. EDWARDS R.T. and STAPPERS B.W.
2005ApJ...632.1060S 22 44 Discovery of three wide-orbit binary pulsars: implications for binary evolution and equivalence principles. STAIRS I.H., FAULKNER A.J., LYNE A.G., et al.
2007MNRAS.379..282L 15       D               1 59 11 PSR J1453+1902 and the radio luminosities of solitary versus binary millisecond pulsars. LORIMER D.R., McLAUGHLIN M.A., CHAMPION D.J., et al.
2010ApJ...715..335K 15       D               1 87 25 Millisecond pulsar ages: implications of binary evolution and a maximum spin limit. KIZILTAN B. and THORSETT S.E.
2010A&A...514A..74J 1168   K A D     X C       31 9 16 Long-term timing of four millisecond pulsars. JANSSEN G.H., STAPPERS B.W., BASSA C.G., et al.
2010ApJ...718.1400F 15       D               1 31 48 Detection, localization, and characterization of gravitational wave bursts in a pulsar timing array. FINN L.S. and LOMMEN A.N.
2011ApJ...730...17B 15       D               1 30 16 Optimizing pulsar timing arrays to maximize gravitational wave single-source detection: a first cut. BURT B.J., LOMMEN A.N. and FINN L.S.
2011MNRAS.416.2285L 15       D               1 19 7 On the progenitors of millisecond pulsars by the recycling evolutionary channel. LIU W.-M. and CHEN W.-C.
2011ApJ...743..102G 15       D               2 48 65 High-precision timing of five millisecond pulsars: space velocities, binary evolution, and equivalence principles. GONZALEZ M.E., STAIRS I.H., FERDMAN R.D., et al.
2012MNRAS.423.2642L 15       D               1 37 34 The optimal schedule for pulsar timing array observations. LEE K.J., BASSA C.G., JANSSEN G.H., et al.
2012RAA....12..219T 38           X         1 9 2 Polynomial regression calculation of the Earth?s position based on millisecond pulsar timing. TIAN F., TANG Z.-H., YAN Q.-Z., et al.
2013ApJ...762...94D 138   K   D       C       5 19 291 Limits on the stochastic gravitational wave background from the north american nanohertz observatory for gravitational waves. DEMOREST P.B., FERDMAN R.D., GONZALEZ M.E., et al.
2013MNRAS.434.1387L 92       D         F     3 55 31 The high time resolution universe pulsar survey -VIII. The galactic millisecond pulsar population. LEVIN L., BAILES M., BARSDELL B.R., et al.
2014MNRAS.437.2217S 15       D               1 84 15 The nature of millisecond pulsars with helium white dwarf companions. SMEDLEY S.L., TOUT C.A., FERRARIO L., et al.
2014MNRAS.439.2033G 15       D               1 77 17 On the non-detection of γ-rays from energetic millisecond pulsars - dependence on viewing geometry. GUILLEMOT L. and TAURIS T.M.
2014ApJ...785..119A viz 15       D               1 202 131 Gravitational waves from known pulsars: results from the initial detector era. AASI J., ABADIE J., ABBOTT B.P., et al.
2014ApJ...788..141M 15       D               1 20 19 Assessing pulsar timing array sensitivity to gravitational wave bursts with memory. MADISON D.R., CORDES J.M. and CHATTERJEE S.
2014ApJ...794..141A 2 21 113 Gravitational waves from individual supermassive black hole binaries in circular orbits: limits from the north american nanohertz observatory for gravitational waves. ARZOUMANIAN Z., BRAZIER A., BURKE-SPOLAOR S., et al.
2014ApJ...794..163C 15       D               1 18 3 Optimization of NANOGrav's time allocation for maximum sensitivity to single sources. CHRISTY B., ANELLA R., LOMMEN A., et al.
2015MNRAS.450.2185L 16       D               1 55 33 The Parkes multibeam pulsar survey - VII. Timing of four millisecond pulsars and the underlying spin-period distribution of the Galactic millisecond pulsar population. LORIMER D.R., ESPOSITO P., MANCHESTER R.N., et al.
2015ApJ...810..150A 55       D     X         2 21 26 NANOGrav constraints on gravitational wave bursts with memory. ARZOUMANIAN Z., BRAZIER A., BURKE-SPOLAOR S., et al.
2015ApJ...813...65N 96       D       C       3 39 177 The NANOGrav nine-year data set: observations, arrival time measurements, and analysis of 37 millisecond pulsars. NANOGRAV COLLABORATION, ARZOUMANIAN Z., BRAZIER A., et al.
2016A&A...585A.128K 16       D               3 79 87 A LOFAR census of millisecond pulsars. KONDRATIEV V.I., VERBIEST J.P.W., HESSELS J.W.T., et al.
2016MNRAS.455.1665B 80               F     1 46 158 European Pulsar Timing Array limits on continuous gravitational waves from individual supermassive slack hole binaries. BABAK S., PETITEAU A., SESANA A., et al.
2016ApJ...818...92M 252       D     X         7 63 36 The NANOGrav nine-year data set: astrometric measurements of 37 millisecond pulsars. MATTHEWS A.M., NICE D.J., FONSECA E., et al.
2016ApJ...818..166L 94       D       C       4 38 30 The NANOGrav nine-year data set: monitoring interstellar scattering delays. LEVIN L., McLAUGHLIN M.A., JONES G., et al.
2016MNRAS.456.2196B 16       D               1 62 40 LEAP: the Large European Array for Pulsars. BASSA C.G., JANSSEN G.H., KARUPPUSAMY R., et al.
2016ApJ...819..155L 212       D     X C       5 37 23 The NANOGrav nine-year data set: noise budget for pulsar arrival times on intraday timescales. LAM M.T., CORDES J.M., CHATTERJEE S., et al.
2015BaltA..24..395M viz 16       D               1 619 2 Binary star DataBase: binaries discovered in non-optical bands. MALKOV O.Y., TESSEMA S.B. and KNIAZEV A.Y.
2016ApJ...821...13A 22       D               1 20 257 The NANOGrav nine-year data set: limits on the isotropic stochastic gravitational wave background. ARZOUMANIAN Z., BRAZIER A., BURKE-SPOLAOR S., et al.
2016MNRAS.457.4421C 94       D         F     4 42 31 The noise properties of 42 millisecond pulsars from the European Pulsar Timing Array and their impact on gravitational-wave searches. CABALLERO R.N., LEE K.J., LENTATI L., et al.
2016MNRAS.458..868L 94       D       C       3 35 24 Prospects for high-precision pulsar timing with the new Effelsberg PSRIX backend. LAZARUS P., KARUPPUSAMY R., GRAIKOU E., et al.
2016MNRAS.458.1267V 19       D               2 51 323 The International Pulsar Timing Array: First data release. VERBIEST J.P.W., LENTATI L., HOBBS G., et al.
2016MNRAS.458.2161L 16       D               2 49 80 From spin noise to systematics: stochastic processes in the first International Pulsar Timing Array data release. LENTATI L., SHANNON R.M., COLES W.A., et al.
2016MNRAS.458.3341D viz 710     A D S   X C       17 80 351 High-precision timing of 42 millisecond pulsars with the European Pulsar Timing Array. DESVIGNES G., CABALLERO R.N., LENTATI L., et al.
2016ARA&A..54..401O 21       D               1 85 918 Masses, radii, and the equation of state of neutron stars. OZEL F. and FREIRE P.
2016MNRAS.461.1317Z 16       D               1 31 18 Detection and localization of continuous gravitational waves with pulsar timing arrays: the role of pulsar terms. ZHU X.-J., WEN L., XIONG J., et al.
2016ApJ...832..167F 793     A D S   X C       19 38 501 The NANOGrav nine-year data set: mass and geometric measurements of binary millisecond pulsars. FONSECA E., PENNUCCI T.T., ELLIS J.A., et al.
2017ApJ...834...35L 16       D               1 37 23 The NANOGrav nine-year data set: excess noise in millisecond pulsar arrival times. LAM M.T., CORDES J.M., CHATTERJEE S., et al.
2017ApJ...835...29Y 17       D               1 301 678 A new electron-density model for estimation of pulsar and FRB distances. YAO J.M., MANCHESTER R.N. and WANG N.
2017ApJ...839...12A viz 56       D     X         2 208 127 First search for gravitational waves from known pulsars with Advanced LIGO. ABBOTT B.P., ABBOTT R., ABBOTT T.D., et al.
2017ApJ...841..125J 214       D     X C       5 39 75 The NANOGrav nine-year data set: measurement and analysis of variations in dispersion measures. JONES M.L., McLAUGHLIN M.A., LAM M.T., et al.
2017RAA....17...19W 95       D     X         3 16 1 Statistical analyses for NANOGrav 5-year timing residuals. WANG Y., CORDES J.M., JENET F.A., et al.
2017ApJ...846..170T 44           X         1 46 402 Formation of double neutron star systems. TAURIS T.M., KRAMER M., FREIRE P.C.C., et al.
2017NewA...54...61B 95       D       C       3 20 7 Millisecond radio pulsars with known masses: parameter values and equation of state models. BHATTACHARYYA S., BOMBACI I., BANDYOPADHYAY D., et al.
2018ApJS..235...37A 186       D       C F     9 47 434 The NANOGrav 11-year data set: high-precision timing of 45 millisecond pulsars. ARZOUMANIAN Z., BRAZIER A., BURKE-SPOLAOR S., et al.
2018ApJ...859...47A 26       D               1 35 365 The NANOGrav 11 year data set: pulsar-timing constraints on the stochastic gravitational-wave background. ARZOUMANIAN Z., BAKER P.T., BRAZIER A., et al.
2018MNRAS.478.1377A 18       D               1 69 157 Evidence for a maximum mass cut-off in the neutron star mass distribution and constraints on the equation of state. ALSING J., SILVA H.O. and BERTI E.
2018MNRAS.478.2359L 16       D               1 65 7 High-precision pulsar timing and spin frequency second derivatives. LIU X.J., BASSA C.G. and STAPPERS B.W.
2018ApJ...864...30H 16       D               1 89 2 On the orbital properties of millisecond pulsar binaries. HUI C.Y., WU K., HAN Q., et al.
2018MNRAS.479.3393W 297       D     X   F     7 30 1 The decomposition of temporal variations of pulsar dispersion measures. WANG P.F. and HAN J.L.
2018ApJ...868...33L 96       D     X         3 50 5 Optimizing pulsar timing array observational cadences for sensitivity to low-frequency gravitational-wave sources. LAM M.T.
2018ApJ...868..122B 16       D               2 41 4 The NANOGrav 11-year data set: pulse profile variability. BROOK P.R., KARASTERGIOU A., McLAUGHLIN M.A., et al.
2018MNRAS.481.2249C 96       D         F     4 27 2 Gravitational wave detection from OJ 287 via a pulsar timing array. CHEN J.-W. and ZHANG Y.
2019ApJ...870...74S 42           X         1 15 29 PSR J2234+0611 a new laboratory for stellar evolution. STOVALL K., FREIRE P.C.C., ANTONIADIS J., et al.
2019MNRAS.484.3646S viz 16       D               1 182 65 Low-frequency Faraday rotation measures towards pulsars using LOFAR: probing the 3D Galactic halo magnetic field. SOBEY C., BILOUS A.V., GRIESSMEIER J.-M., et al.
2019ApJ...872..150M 16       D               2 46 7 The NANOGrav 11 yr data set: solar wind sounding through pulsar timing. MADISON D.R., CORDES J.M., ARZOUMANIAN Z., et al.
2019ApJ...872..193L 16       D               3 48 30 The NANOGrav 12.5 yr data set: the frequency dependence of pulse jitter in precision millisecond pulsars. LAM M.T., McLAUGHLIN M.A., ARZOUMANIAN Z., et al.
2019RAA....19...20H 16       D               1 38 ~ The role of FAST in pulsar timing arrays. HOBBS G., DAI S., MANCHESTER R.N., et al.
2019MNRAS.486.4098I 16       D               1 250 3 Wide binary companions to massive stars and their use in constraining natal kicks. IGOSHEV A.P. and PERETS H.B.
2019ApJ...879...10A viz 57       D     X         2 225 87 Searches for gravitational waves from known pulsars at two harmonics in 2015-2017 LIGO data. ABBOTT B.P., ABBOTT R., ABBOTT T.D., et al.
2019MNRAS.488.2190L 16       D               1 50 ~ Correlated timing noise and high-precision pulsar timing: measuring frequency second derivatives as an example. LIU X.J., KEITH M.J., BASSA C.G., et al.
2019ApJ...880..116A 83               F     2 45 119 The NANOGrav 11 yr data set: limits on Gravitational Waves from individual supermassive black hole binaries. AGGARWAL K., ARZOUMANIAN Z., BAKER P.T., et al.
2019MNRAS.490.3860R 42           X         1 20 27 Upgraded Giant Metrewave Radio Telescope timing of NGC 1851A: a possible millisecond pulsar - neutron star system. RIDOLFI A., FREIRE P.C.C., GUPTA Y., et al.
2019MNRAS.490.4666P 100       D         F     4 65 195 The International Pulsar Timing Array: second data release. PERERA B.B.P., DECESAR M.E., DEMOREST P.B., et al.
2019PASJ...71...98N 16       D               1 14 ~ Long-term simulations of multi-dimensional core-collapse supernovae: Implications for neutron star kicks. NAKAMURA K., TAKIWAKI T. and KOTAKE K.
2020MNRAS.491.5951H 99       D     X         3 49 43 A pulsar-based time-scale from the International Pulsar Timing Array. HOBBS G., GUO L., CABALLERO R.N., et al.
2020ApJ...889...38A 82               F     1 20 ~ The NANOGrav 11 yr data set: limits on gravitational wave memory. AGGARWAL K., ARZOUMANIAN Z., BAKER P.T., et al.
2020A&A...634A.105S 16       D               1 68 ~ A dispersion excess from pulsar wind nebulae and supernova remnants: Implications for pulsars and FRBs. STRAAL S.M., CONNOR L. and VAN LEEUWEN J.
2020ApJ...892...76M viz 16       D               1 516 26 The Green Bank North Celestial Cap pulsar survey. V. Pulsar census and survey sensitivity. McEWEN A.E., SPIEWAK R., SWIGGUM J.K., et al.
2020ApJ...893L...8B 16       D               1 47 ~ The NANOGrav 11 yr data set: constraints on planetary masses around 45 millisecond pulsars. BEHRENS E.A., RANSOM S.M., MADISON D.R., et al.
2020MNRAS.496.2836N viz 16       D               1 120 17 Faraday rotation measures of Northern hemisphere pulsars using CHIME/Pulsar. NG C., PANDHI A., NAIDU A., et al.
2020MNRAS.499.2276L 83               F     1 14 17 A revisit of PSR J1909-3744 with 15-yr high-precision timing. LIU K., GUILLEMOT L., ISTRATE A.G., et al.
2020ApJ...904..191J 16       D               1 17 ~ Pulsar timing signatures of circumbinary asteroid belts. JENNINGS R.J., CORDES J.M. and CHATTERJEE S.
2020ApJ...905L..34A 59       D               1 15 657 The NANOGrav 12.5 yr data set: search for an isotropic stochastic gravitational-wave background. ARZOUMANIAN Z., BAKER P.T., BLUMER H., et al.
2020A&A...644A.153D 99       D         F     3 40 21 Dispersion measure variability for 36 millisecond pulsars at 150 MHz with LOFAR. DONNER J.Y., VERBIEST J.P.W., TIBURZI C., et al.
2021MNRAS.501..701Y 17       D               1 55 ~ Searching for gravitational-wave bursts from cosmic string cusps with the Parkes Pulsar Timing Array. YONEMARU N., KUROYANAGI S., HOBBS G., et al.
2021ApJS..252....4A 228       D     X C       5 48 104 The NANOGrav 12.5 yr data set: observations and narrowband timing of 47 millisecond pulsars. ALAM M.F., ARZOUMANIAN Z., BAKER P.T., et al.
2021ApJS..252....5A 101       D       C       4 51 84 The NANOGrav 12.5 yr data set: wideband timing of 47 millisecond pulsars. ALAM M.F., ARZOUMANIAN Z., BAKER P.T., et al.
2021MNRAS.502..407P 17       D               1 31 20 Measurements of pulse jitter and single-pulse variability in millisecond pulsars using MeerKAT. PARTHASARATHY A., BAILES M., SHANNON R.M., et al.
2020RAA....20..184L 16       D               1 27 ~ Gravitational wave sensitivity curve of pulsar timing arrays affected by correlated noises. LIU S. and TONG M.-L.
2021MNRAS.505.4531M 100       D         F     2 44 ~ Fresnel models for gravitational wave effects on pulsar timing. McGRATH C. and CREIGHTON J.
2021ApJS..255....5A viz 17       D               1 977 ~ The CHIME pulsar project: system overview. AMIRI M., BANDURA K.M., BOYLE P.J., et al.
2021ApJ...916..100R viz 17       D               1 422 2 Analyzing the Galactic pulsar distribution with machine learning. RONCHI M., GRABER V., GARCIA-GARCIA A., et al.
2021ApJ...917...10T 17       D               4 51 12 The NANOGrav 12.5 year data set: monitoring interstellar scattering delays. TURNER J.E., McLAUGHLIN M.A., CORDES J.M., et al.
2021ApJ...921..120Y 42           X         1 12 3 An eclipsing black widow pulsar in NGC 6712. YAN Z., PAN Z.-C., RANSOM S.M., et al.
2021ApJ...923L..22A 44           X         1 11 30 The NANOGrav 12.5-year data set: search for non-einsteinian polarization modes in the gravitational-wave background. ARZOUMANIAN Z., BAKER P.T., BLUMER H., et al.
2022MNRAS.510.4873A 88               F     1 52 185 The International Pulsar Timing Array second data release: Search for an isotropic gravitational wave background. ANTONIADIS J., ARZOUMANIAN Z., BABAK S., et al.
2022ApJ...926..168W 528       D     X C       12 33 10 The NANOGrav 12.5 yr Data Set: Polarimetry and Faraday Rotation Measures from Observations of Millisecond Pulsars with the Green Bank Telescope. WAHL H.M., McLAUGHLIN M.A., GENTILE P.A., et al.
2022ApJ...932..105J 85               F     1 22 ~ Gravitational-wave Statistics for Pulsar Timing Arrays: Examining Bias from Using a Finite Number of Pulsars. JOHNSON A.D., VIGELAND S.J., SIEMENS X., et al.
2023MNRAS.518.1802S 17       D               3 29 7 Quality over quantity: Optimizing pulsar timing array analysis for stochastic and continuous gravitational wave signals. SPERI L., PORAYKO N.K., FALXA M., et al.
2022ApJ...941..130D 17       D               1 120 5 Quantifying the Evidence Against a Mass Gap between Black Holes and Neutron Stars. DE SA L.M., BERNARDO A., BACHEGA R.R.A., et al.
2023MNRAS.519.4982D 496   K   D     X   F     11 36 6 The MSPSRπ catalogue: VLBA astrometry of 18 millisecond pulsars. DING H., DELLER A.T., STAPPERS B.W., et al.
2023MNRAS.520.1789S 17       D               1 33 2 Searches for Shapiro delay in seven binary pulsars using the MeerKAT telescope. SHAMOHAMMADI M., BAILES M., FREIRE P.C.C., et al.
2023MNRAS.521.2553L 104       D         F     2 9 ~ Research on the joint timekeeping of pulsars and atomic clocks based on Vondrak-Cepek filtering. LIU Y., XU B., ZHENG Z., et al.
2023MNRAS.519.3976M 17       D               2 78 18 The MeerKAT Pulsar Timing Array: first data release. MILES M.T., SHANNON R.M., BAILES M., et al.
2023ApJ...951L...9A 366       D     X C       8 68 35 The NANOGrav 15 yr Data Set: Observations and Timing of 68 Millisecond Pulsars. AGAZIE G., ALAM M.F., ANUMARLAPUDI A., et al.
2023ApJ...951L..10A 104       D       C       2 72 14 The NANOGrav 15 yr Data Set: Detector Characterization and Noise Budget. AGAZIE G., ANUMARLAPUDI A., ARCHIBALD A.M., et al.
2023RAA....23g5024X 88               F     2 56 95 Searching for the Nano-Hertz Stochastic Gravitational Wave Background with the Chinese Pulsar Timing Array Data Release I. XU H., CHEN S., GUO Y., et al.
2023ApJ...951L..28A 17       D               1 47 ~ The NANOGrav 12.5 yr Data Set: Bayesian Limits on Gravitational Waves from Individual Supermassive Black Hole Binaries. ARZOUMANIAN Z., BAKER P.T., BLECHA L., et al.
2023ApJ...951L..50A 104       D     X         3 72 13 The NANOGrav 15 yr Data Set: Bayesian Limits on Gravitational Waves from Individual Supermassive Black Hole Binaries. AGAZIE G., ANUMARLAPUDI A., ARCHIBALD A.M., et al.
2023MNRAS.525.1079M 540       D S   X C F     10 17 ~ Variable scintillation arcs of millisecond pulsars observed with the Large European Array for Pulsars. MAIN R.A., ANTONIADIS J., CHEN S., et al.
2023MNRAS.525.2605G 148       D     X   F     3 73 ~ The white dwarf mass-orbital period relation under wind mass-loss. GAO S.-J. and LI X.-D.
2023ApJ...956...28A viz 17       D               1 158 ~ Characterizing Pulsars Detected in the Rapid ASKAP Continuum Survey. ANUMARLAPUDI A., EHLKE A., JONES M.L., et al.
2023A&A...678A..48E 366       D S   X C       7 25 ~ The second data release from the European Pulsar Timing Array I. The dataset and timing analysis. EPTA COLLABORATION, ANTONIADIS J., BABAK S., et al.
2023A&A...678A..49E 192       D     X         5 25 ~ The second data release from the European Pulsar Timing Array II. Customised pulsar noise models for spatially correlated gravitational waves. EPTA COLLABORATION AND INPTA COLLABORATION, ANTONIADIS J., ARUMUGAM P., et al.
2023A&A...678A..50E 87               F     2 26 ~ The second data release from the European Pulsar Timing Array III. Search for gravitational wave signals. EPTA COLLABORATION AND INPTA COLLABORATION, ANTONIADIS J., ARUMUGAM P., et al.
2023A&A...679A..17P 17       D               1 140 ~ Improving the spin-down limits of the continuous gravitational waves emitted from rotating triaxial pulsars. PATHAK D. and CHATTERJEE D.
2023MNRAS.526.3370G 17       D               2 92 ~ Flux density monitoring of 89 millisecond pulsars with MeerKAT. GITIKA P., BAILES M., SHANNON R.M., et al.
2023RAA....23l5020W 17       D               1 65 ~ Effect of Matching Algorithm and Profile Shape on Pulsar Pulse Time of Arrival Uncertainties. WANG J., VERBIEST J.P.W., SHAIFULLAH G.M., et al.
2024MNRAS.527.4483D 18       D               1 145 ~ Neutron star mass in dark matter clumps. DELIYERGIYEV M., DEL POPOLO A. and LE DELLIOU M.
2024ApJ...963...61A 90               F     1 46 ~ The NANOGrav 12.5 yr Data Set: Search for Gravitational Wave Memory. AGAZIE G., ARZOUMANIAN Z., BAKER P.T., et al.
2024RAA....24c5019Z 152       D     X   F     3 9 ~ Research on Pulsar Time Steered Atomic Time Algorithm Based on DPLL. ZHENG Z.-H., LIU Y., SHEN D., et al.
2024ApJ...964....6W 511       D S   X         11 16 ~ Pulse Jitter and Single-pulse Variability in Millisecond Pulsars. WANG S.Q., WANG N., WANG J.B., et al.
2024A&A...683A.201V 18       D               1 25 ~ Testing strengths, limitations, and biases of current pulsar timing arrays' detection analyses on realistic data. VALTOLINA S., SHAIFULLAH G., SAMAJDAR A., et al.
2024MNRAS.530..287S 18       D               4 85 ~ MeerKAT Pulsar Timing Array parallaxes and proper motions. SHAMOHAMMADI M., BAILES M., FLYNN C., et al.
2024ApJ...966..105A 18       D               1 30 ~ Comparing Recent Pulsar Timing Array Results on the Nanohertz Stochastic Gravitational-wave Background. AGAZIE G., ANTONIADIS J., ANUMARLAPUDI A., et al.
2024A&A...687A.154W 421       D S   X C       8 13 ~ Improving pulsar timing precision through superior time-of-arrival creation. WANG J., VERBIEST J.P.W., SHAIFULLAH G.M., et al.
2024MNRAS.532.3893Y 18       D               2 209 ~ High-priority targets for transient gravitational waves from glitching pulsars. YIM G., SHAO L. and XU R.
2024ApJ...970..148X 63       D     X         2 399 ~ Statistical Analysis of Pulsar Flux Density Distribution. XU H.W., ZHAO R.S., GUGERCINOGLU E., et al.
2024ApJ...972...29W 18       D               1 25 ~ High-redshift Merger Model for Low-frequency Gravitational Wave Background. WU Z.-F. and GIANNIOS D.
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