X-ray optics at NASA Marshall Space Flight Center
Author(s) -
Stephen L. O’Dell,
Carolyn Atkins,
David M. Broadway,
Ronald F. Elsner,
Jessica A. Gaskin,
Mikhail V. Gubarev,
Kiranmayee Kilaru,
Jeffery J. Kolodziejczak,
Brian D. Ramsey,
Jacqueline M. Roche,
Douglas A. Swartz,
Allyn F. Tennant,
Martin C. Weisskopf,
V. E. Zavlin
Publication year - 2015
Publication title -
proceedings of spie, the international society for optical engineering/proceedings of spie
Language(s) - English
Resource type - Conference proceedings
SCImago Journal Rank - 0.192
H-Index - 176
eISSN - 1996-756X
pISSN - 0277-786X
DOI - 10.1117/12.2179415
Subject(s) - x ray telescope , x ray optics , telescope , optics , electroforming , fabrication , physics , angular resolution (graph drawing) , sounding rocket , aerospace engineering , materials science , x ray , astronomy , engineering , nanotechnology , medicine , alternative medicine , mathematics , layer (electronics) , pathology , combinatorics
NASA's Marshall Space Flight Center (MSFC) engages in research, development, design, fabrication, coating, assembly, and testing of grazing-incidence optics (primarily) for x-ray telescope systems. Over the past two decades, MSFC has refined processes for electroformed-nickel replication of grazing-incidence optics, in order to produce highstrength, thin-walled, full-cylinder x-ray mirrors. In recent years, MSFC has used this technology to fabricate numerous x-ray mirror assemblies for several flight (balloon, rocket, and satellite) programs. Additionally, MSFC has demonstrated the suitability of this technology for ground-based laboratory applications—namely, x-ray microscopes and cold-neutron microscopes and concentrators. This mature technology enables the production, at moderately low cost, of reasonably lightweight x-ray telescopes with good (15–30 arcsecond) angular resolution. However, achieving arcsecond imaging for a lightweight x-ray telescope likely requires development of other technologies. Accordingly, MSFC is conducting a multi-faceted research program toward enabling cost-effective production of lightweight high-resolution x-ray mirror assemblies. Relevant research topics currently under investigation include differential deposition for post-fabrication figure correction, in-situ monitoring and control of coating stress, and direct fabrication of thin-walled full-cylinder grazing-incidence mirrors.
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