2002Conference Record of the 1991 IEEE Nuclear Science Symposium and Medical Imaging ConferenceRequires access

X-ray microscopy in the water window

A. B. C. Walker, Richard B. Hoover, Phillip C. Baker, Troy W. Barbee, David L. Shealy

Open publisher page 0 citations

Abstract

The development of multilayer coatings which permit the efficient reflection of X-rays within a narrow wavelength band at normal or near-normal angles of incidence has resulted in the fabrication of X-ray telescopes and microscopes which have distinct advantages compared to their grazing incidence counterparts. These advantages include superior angular resolution and the ability to select a narrow X-ray band for imaging while rejecting radiation outside this band. The application of this technology to astronomical telescopes for the study of the sun is reviewed, and a development program for its application to biological microscopes able to operate in the important water window, between the K absorption edges of oxygen (23.3 AA) and carbon (43.68 AA), is described. The design and analysis effort discussed has established that the Schwarzschild configuration affords a feasible approach for an imaging X-ray microscope operating in the water window.>

About this research paper

What this paper is about

The development of multilayer coatings which permit the efficient reflection of X-rays within a narrow wavelength band at normal or near-normal angles of incidence has resulted in the fabrication of X-ray telescopes and microscopes which have distinct advantages compared to their grazing incidence counterparts. These advantages include superior angular resolution and the ability to select a narrow X-ray band for imaging while rejecting radiation outside this band. The application of this technology to astronomical telescopes for the study of the sun is reviewed, and a development program for its application to biological microscopes able to operate in the important water window, between the K absorption edges of oxygen (23.3 AA) and carbon (43.68 AA), is described. The design and analysis effort discussed has established that the Schwarzschild configuration affords a feasible approach for an imaging X-ray microscope operating in the water window.>

Why it matters

A significance statement is not available in the OpenAlex record.

Key contribution

A contribution statement is not available in the OpenAlex record.

Method / approach

Method details are not available in the OpenAlex metadata.

Main findings

Findings are not separately available in the OpenAlex metadata.

Limitations

Limitations are not available in the OpenAlex metadata.

Applications

Application details are not available in the OpenAlex metadata.

Available abstract

The development of multilayer coatings which permit the efficient reflection of X-rays within a narrow wavelength band at normal or near-normal angles of incidence has resulted in the fabrication of X-ray telescopes and microscopes which have distinct advantages compared to their grazing incidence counterparts. These advantages include superior angular resolution and the ability to select a narrow X-ray band for imaging while rejecting radiation outside this band. The application of this technology to astronomical telescopes for the study of the sun is reviewed, and a development program for its application to biological microscopes able to operate in the important water window, between the K absorption edges of oxygen (23.3 AA) and carbon (43.68 AA), is described. The design and analysis effort discussed has established that the Schwarzschild configuration affords a feasible approach for an imaging X-ray microscope operating in the water window.>

Key concepts: Water window, Microscope, Optics, Window (computing), Fabrication, Microscopy, Synchrotron radiation, Radiation

Related papers

Back to paper searchBrowse research topicsOriginal source
X-ray microscopy in the water window — Research Paper | ScholarLens