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Atomic and Laser Physics
Credit: Jack Hobhouse

Professor Steven Rose

Visiting Professor

Research theme

  • Lasers and high energy density science

Sub department

  • Atomic and Laser Physics

Research groups

  • Oxford Centre for High Energy Density Science (OxCHEDS)
Steven.Rose@physics.ox.ac.uk
Imperial College London webpage
  • About
  • Publications

Dirac-Fock energy levels and transition probabilities for oxygen-like Fe XIX ***

Astronomy & Astrophysics EDP Sciences 424:1 (2004) 363-369

Authors:

V Jonauskas, FP Keenan, ME Foord, RF Heeter, SJ Rose, GJ Ferland, R Kisielius, PAM van Hoof, PH Norrington
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Charge-State Distribution and Doppler Effect in an Expanding Photoionized Plasma

Physical Review Letters American Physical Society (APS) 93:5 (2004) 055002

Authors:

ME Foord, RF Heeter, PAM van Hoof, RS Thoe, JE Bailey, ME Cuneo, H-K Chung, DA Liedahl, KB Fournier, GA Chandler, V Jonauskas, R Kisielius, LP Mix, C Ramsbottom, PT Springer, FP Keenan, SJ Rose, WH Goldstein
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Relativistic allowed and forbidden transition probabilities for fluorine-like Fe XVIII*

Astronomy & Astrophysics EDP Sciences 416:1 (2004) 383-389

Authors:

V Jonauskas, FP Keenan, ME Foord, RF Heeter, SJ Rose, PAM van Hoof, GJ Ferland, KM Aggarwal, R Kisielius, PH Norrington
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Set the controls for the heart of the Sun

Contemporary Physics Taylor & Francis 45:2 (2004) 109-121
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Simulations of a photopumped X-ray laser using the H-like Cl - Li-like Se scheme

Journal of Quantitative Spectroscopy and Radiative Transfer 83:2 (2004) 203-213

Authors:

IR Al'Miev, X Lu, SJ Rose, J Zhang, JS Wark

Abstract:

Calculations of the modal photon densities and gain in a photopumped Cl XVII-Se XXXII X-ray laser are presented. In this paper we undertake a realistic simulation of the generation of both Cl and Se plasmas, using a high-power optical laser, which includes radiation from both Ly-α fine-structure components of H-like Cl pumping the 2p3/2-5d5/2 transition in Li-like Se. The calculations are performed in two dimensions in a realistic geometry taking into account plasma gradients. This gives information about the spatial extent and time evolution of X-ray lasing gain on the 5-4 transitions (39.5 Å) in Li-like Se. We find that gain (about 200 cm-1) is expected only when the optical laser includes a pre-pulse. Calculations show that the absorption of pumping radiation in the pumped plasma can reduce the gain by 20%. Time-dependent calculations have shown that the gain is reduced by 30% in comparison to the steady-state calculations. The effect of the spectral profile and self-radiation of 5d5/2-2p3/2 transition in Li-like Se reduces the gain by about 2%. © 2003 Elsevier Ltd. All rights reserved.
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