Testing afterglow models of FRB 200428 with early post-burst observations of SGR 1935+2154

ArXiv 2210.06547 (2022)

Authors:

AJ Cooper, A Rowlinson, RAMJ Wijers, C Bassa, K Gourdji, J Hessels, AJ van der Horst, V Kondratiev, Z Pleunis, T Shimwell, S ter Veen

A refined dynamical mass for the black hole in the X-ray transient XTE J1859+226

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 517:1 (2022) 1476-1482

Authors:

IV Yanes-Rizo, MAP Torres, J Casares, SE Motta, T Muñoz-Darias, P Rodríguez-Gil, M Armas Padilla, F Jiménez-Ibarra, PG Jonker, JM Corral-Santana, R Fender

Asymptotic Green's function solutions of the general relativistic thin disc equations

(2022)

Correction to: Evidence for a moderate spin from X-ray reflection of the high-mass supermassive black hole in the cluster-hosted quasar H1821+643

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 517:1 (2022) 1006-1006

Authors:

Júlia Sisk-Reynés, Christopher S Reynolds, James H Matthews, Robyn N Smith

Asymptotic Green’s function solutions of the general relativistic thin disc equations

Monthly Notices of the Royal Astronomical Society Oxford University Press 518:2 (2022) 1905-1916

Abstract:

The leading order Green’s function solutions of the general relativistic thin disc equations are computed, using a pseudo-Newtonian potential and asymptotic Laplace mode matching techniques. This solution, valid for a vanishing innermost stable circular orbit (ISCO) stress, is constructed by ensuring that it reproduces the leading order asymptotic behaviour of the near-ISCO, Newtonian, and global Wentzel–Kramers–Brillouin limits. Despite the simplifications used in constructing this solution, it is typically accurate, for all values of the Kerr spin parameter a and at all radii, to less than a per cent of the full numerically calculated solutions of the general relativistic disc equations. These solutions will be of use in studying time-dependent accretion discs surrounding Kerr black holes.