Proceedings of SPIE, the International Society for Optical Engineering/Proceedings of SPIE · 2014 · 16 citations · 41 references
Natural SciencesAerospace EngineeringAstronomyOpticsSpacecraft DesignX-ray AstronomyTelescope OpticsX-ray OpticsX-ray TelescopesAngular ResolutionFabricationGrazing Incidence OpticsMirror AlignmentPrecision FabricationSurface AreaTelescopesX-ray Mirrors
The future of x-ray astronomy depends upon development of x-ray telescopes with larger aperture areas (≈ 3 m<sup>2</sup>) and fine angular resolution (≈ 1″). Combined with the special requirements of nested grazing-incidence optics, the mass and envelope constraints of space-borne telescopes render such advances technologically and programmatically challenging. Achieving this goal will require precision fabrication, alignment, mounting, and assembly of large areas (≈ 600 m<sup>2</sup>) of lightweight (≈ 1 kg/m<sup>2 </sup>areal density) high-quality mirrors at an acceptable cost (≈ 1 M$/m<sup>2 </sup>of mirror surface area). This paper reviews relevant technological and programmatic issues, as well as possible approaches for addressing these issues—including active (in-space adjustable) alignment and figure correction.
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Elliptical x-ray microprobe mirrors by differential deposition
Gene E. Ice, J.-S. Chung, Jonathan Z. Tischler et al. · Review of Scientific Instruments · 2000 · 120 citations