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  <titleInfo>
    <title>X-ray color imaging</title>
    <subTitle>static and dynamic x-ray fluorescence for chemical element identification</subTitle>
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  <titleInfo type="alternative">
    <title>Static and dynamic x-ray fluorescence for chemical element identification</title>
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  <name type="personal">
    <namePart>Sakurai, Kenji</namePart>
    <namePart type="termsOfAddress">(Researcher in spectroscope)</namePart>
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  <name type="personal">
    <namePart>Zhao, Wenyang</namePart>
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  <name type="corporate">
    <namePart>Institute of Physics (Great Britain)</namePart>
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    <dateIssued encoding="marc">2024</dateIssued>
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  <abstract>X-ray fluorescence spectroscopy (XRF) is a powerful tool that reveals the hidden colors of chemical elements, changing our understanding of Nature. This technology is widely used in various fields, including industrial quality control, environmental analysis, and art conservation. A new advancement in XRF is x-ray color imaging, which captures images of chemical elements in the x-ray wavelength range. There are two techniques: scanning and projection. Projection-type x-ray color imaging is a breakthrough development that uses 2D semiconductor detectors, allowing real-time imaging and dynamic tracking of chemical reactions. This innovation has the potential to transform several scientific fields, allowing scientists to study complex systems and reactions in ways never before possible. This book explores the technology and applications of this new imaging technique. Part of IOP Series in Sensors and Sensor Systems.</abstract>
  <tableOfContents>1. The colors of the chemical elements -- 1.1. Seeing is believing -- 1.2. Chemical elements and the periodic table-a modern way to see nature -- 1.3. The fundamentals of x-ray fluorescence -- 1.4. Energy-dispersive x-ray detectors -- 1.5. Practical notes for modern x-ray fluorescence analysis -- 1.6. Nature is complex and inhomogeneous</tableOfContents>
  <tableOfContents>2. What does x-ray color imaging look like? -- 2.1. The scanning and projection types of x-ray fluorescence imaging -- 2.2. Biology -- 2.3. Mineralogy -- 2.4. Industry -- 2.5. Cultural heritage -- 2.6. Chemistry -- 2.7. Simultaneous multielement movies</tableOfContents>
  <tableOfContents>3. Methods and instruments for x-ray color imaging -- 3.1. Compatibility with conventional x-ray fluorescence spectrometry -- 3.2. X-ray sources -- 3.3. Imaging optics -- 3.4. Imaging detectors -- 3.5. Building a homemade x-ray color imager</tableOfContents>
  <tableOfContents>4. Advanced imaging -- 4.1. X-ray absorption fine structure imaging -- 4.2. X-ray diffraction imaging -- 4.3. Integrating x-ray imaging techniques -- 4.4. The application of x-ray color imaging in combinatorial imaging -- 4.5. Other advanced x-ray imaging</tableOfContents>
  <tableOfContents>5. New opportunities in x-ray color imaging -- 5.1. Expanding vision -- 5.2. Multiscale vision -- 5.3. Complex vision -- 5.4. The use of artificial intelligence -- 5.5. Recommendations for the reader -- Appendix A. The x-ray periodic table -- Appendix B. X-ray radiation safety.</tableOfContents>
  <targetAudience>Academic and industrial researchers and engineers in materials, engineering and physics.</targetAudience>
  <targetAudience authority="marctarget">specialized</targetAudience>
  <note type="statement of responsibility">Kenji Sakurai, Wenyang Zhao.</note>
  <note>"Version: 20241201"--Title page verso.</note>
  <note>Includes bibliographical references.</note>
  <note>Full-text restricted to subscribers or individual document purchasers.</note>
  <note>Also available in print.</note>
  <note>Mode of access: World Wide Web.</note>
  <note>System requirements: Adobe Acrobat Reader, EPUB reader, or Kindle reader.</note>
  <note>Kenji Sakurai is an honorary researcher at the National Institute for Materials Science and a professor emeritus at the University of Tsukuba after his retirement in March 2020. Currently, he maintains a private laboratory, the Imaging Physics Laboratory, in Tokai, Ibaraki, near the nuclear reactor and large accelerator facility. His research interests include the development of new frontier analytical imaging methods and instrumentation using x-rays and neutrons (especially those used to solve problems related to surfaces and interfaces), as well as research on non-crystalline solids and some inorganic crystals. X-ray color imaging is one of the innovative works. Wenyang Zhao, born in 1993, received the degree of Doctor of Engineering in 2020 at Kenji Sakurai's lab at the University of Tsukuba. He is currently a postdoctoral researcher at RIKEN Center for Computational Science, Kobe, Japan. His research interests are in utilizing the power of high-performance computation to interpret experimental imaging data.</note>
  <subject>
    <topic>X-ray spectroscopy</topic>
  </subject>
  <subject>
    <topic>Chemical elements</topic>
    <topic>Spectra</topic>
  </subject>
  <subject authority="bicssc">
    <topic>Imaging systems &amp; technology</topic>
  </subject>
  <subject authority="bisacsh">
    <topic>SCIENCE / Spectroscopy &amp; Spectrum Analysis</topic>
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  <classification authority="lcc">QD96.X2 S258 2024eb</classification>
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      <partName>Release 24</partName>
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      <title>IOP series in sensors and sensor systems</title>
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      <partName>2024 collection</partName>
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  <identifier type="isbn">9780750332156</identifier>
  <identifier type="isbn">9780750332149</identifier>
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  <identifier type="uri">https://iopscience.iop.org/book/mono/978-0-7503-3215-6</identifier>
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