Linking Jet Emission, X-ray States and Hard X-ray Tails in the Neutron Star X-ray Binary GX 17+2

(2007)

Authors:

S Migliari, JCA Miller-Jones, RP Fender, J Homan, T Di Salvo, RE Rothschild, MP Rupen, JA Tomsick, R Wijnands, M van der Klis

Evidence for a jet contribution to the optical/infrared light of neutron star X-ray binaries

Monthly Notices of the Royal Astronomical Society Oxford University Press (OUP) 379:3 (2007) 1108-1116

Authors:

DM Russell, RP Fender, PG Jonker

Tracing the jet contribution to the mid-IR over the 2005 outburst of GRO J1655-40 via broadband spectral modeling

(2007)

Authors:

S Migliari, JA Tomsick, S Markoff, E Kalemci, CD Bailyn, M Buxton, S Corbel, RP Fender, P Kaaret

Erratum: “Discovery of Twin kHz QPOs in the Peculiar X-Ray Binary Circinus X-1” (ApJ, 653, 1435 [2006])

The Astrophysical Journal American Astronomical Society 664:1 (2007) 596-596

Authors:

S Boutloukos, M van der Klis, D Altamirano, M Klein-Wolt, R Wijnands, PG Jonker, RP Fender

An empirical model for the beams of radio pulsars

ArXiv 0707.2547 (2007)

Authors:

A Karastergiou, S Johnston

Abstract:

Motivated by recent results on the location of the radio emission in pulsar magnetospheres, we have developed a model which can account for the large diversity found in the average profile shapes of pulsars. At the centre of our model lies the idea that radio emission at a particular frequency arises from a wide range of altitudes above the surface of the star and that it is confined to a region close to the last open field lines. We assert that the radial height range over which emission occurs is responsible for the complex average pulse shapes rather than the transverse (longitudinal) range proposed in most current models. By implementing an abrupt change in the height range to discriminate between young, short-period, highly-energetic pulsars and their older counterparts, we obtain the observed transition between the simple and complex average pulse profiles observed in each group respectively. Monte Carlo simulations are used to demonstrate the match of our model to real observations.