Toward Large-Area Sub-Arcsecond X-Ray Telescopes II

In order to advance significantly scientific objectives, future x-ray astronomy missions will likely call for x-ray telescopes with large aperture areas (approx. = 3 sq m) and fine angular resolution (approx. = 1"). Achieving such performance is programmatically and technologically challenging...

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Hauptverfasser: ODell, Stephen L, Allured, Ryan, Ames, Andrew O, Biskach, Michael P, Broadway, David M, Bruni, Ricardo J, Burrows, David, Cao, Jian, Chalifoux, Brandon D, Chan, Kai-wing, Chung, Yip-Wah, Cotroneo, Vincenzo, Elsner, Ronald F, Gaskin, Jessica A, Gubarev, Mikhail V, Heilmann, Ralf K, Hertz, Edward, Jackson, Thomas N, Kilaru, Kiranmayee, Kolodziejczak, Jeffery J, McClelland, Ryan S, Ramsey, Brian D, Reid, Paul B, Riveros, Raul E, Roche, Jacqueline M, Romaine, Suzanne E, Saha, Timo T, Schattenburg, Mark L, Schwartz, Daniel A, Schwartz, Eric D, Solly, Peter M, Trolier-McKinstry, Susan E, Ulmer, Mellville P, Vikhlilin, Alexey, Wallace, Margeaux L, Zhang, William W
Format: Tagungsbericht
Sprache:eng
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Zusammenfassung:In order to advance significantly scientific objectives, future x-ray astronomy missions will likely call for x-ray telescopes with large aperture areas (approx. = 3 sq m) and fine angular resolution (approx. = 1"). Achieving such performance is programmatically and technologically challenging due to the mass and envelope constraints of space-borne telescopes and to the need for densely nested grazing-incidence optics. Such an x-ray telescope will require precision fabrication, alignment, mounting, and assembly of large areas (approx. = 600 sq m) of lightweight (approx. = 2 kg/sq m areal density) high-quality mirrors, at an acceptable cost (approx. = 1 M$/sq m of mirror surface area). This paper reviews relevant programmatic and technological issues, as well as possible approaches for addressing these issues-including direct fabrication of monocrystalline silicon mirrors, active (in-space adjustable) figure correction of replicated mirrors, static post-fabrication correction using ion implantation, differential erosion or deposition, and coating-stress manipulation of thin substrates.
ISSN:0277-786X
DOI:10.1117/12.2238247