Skip to main content
Home
Home
  • Status
  • Science
    • Art and Archaeology
    • Biology
    • Chemistry
    • Energy
    • Engineering
    • Materials
    • X-Ray Technology
    • User Stories
    • Science Highlights
    • Publications
  • Users
    • 2025 CHESS User Meeting
    • Workshops at CHESS
    • Beamline Directory
    • X-Ray Run Schedule
    • What's the process? - Prospective User Guide
    • User Guide
    • User Agreement
    • BeamPASS
    • CHESS Deadlines
    • CHESS Status Page
    • Safety
      • In-Person User Orientation and Safety Training
    • Technical Resources
      • Affiliated Resources
      • Calculators
      • Computing
      • Detectors
      • Video Backgrounds
    • Acknowledgments
    • Travel and Lodging
    • Shipping
  • Facilities
    • Becoming a Partner
    • CHEXS
    • HMF Beamline
    • MSN-C
    • MacCHESS
    • XLEAP
      • People of XLEAP
      • XLEAP Overview
      • Proposed Capabilities
      • Stay in touch
  • Public
    • Events
    • Tours
    • Student Opportunities
    • Lending Library
    • 3D and Virtual Tours
  • Industry
  • About
    • Staff Directory
    • Advisory Bodies
    • What we do
    • Job Openings
    • News
      • CHESS eNewsletter
      • Media Resources
      • News Archive
    • Publications
      • Publications 2025
      • Publications 2024
      • Publications 2023
      • Publications 2022
      • Publications 2021
      • Publications 2020
      • Publications 2019
      • Publications 2018
      • Publications 2017
      • Publications 2016
      • Publications 2015
      • Publications 2014
      • Publications 2013
      • Publications 2012
      • Publications 2011
      • Publications 2010
      • Publications 2009
      • Publications 2005
    • Beyond the Lab
    • History

Art and Archaeology

X-ray techniques can be applied to discover details about art and artifacts, otherwise invisible to the human eye, such as ancient inscriptions in two-thousand year old stone tablets have mostly eroded away due weathering. Elements like iron and lead, which were buried in the stone during chiseling, carving and subsequent painting, can be detected. Other researchers have begun projects at CHESS to analyze slices of trees, which can hold clues to atmospheric conditions present when they grew, and to characterize Native American ornamental stone artifacts to learn about trade routes and quarry practices during early periods of USA colonization.

When high-energy x-rays hit an object, the atoms in the material create “fluorescence” and give off light. The colors of this light, or its wavelength spectrum, are unique to the particular atoms being struck. In this way x-ray fluorescence (XRF) has proven itself a versatile tool to “fingerprint” materials. Collaborators from numerous museums have ongoing projects to uncover mysteries in painting held in their collections. The facilities at CHESS allow scientists to hold specimens, and translate them through x-ray beams, all while analyzing the XRF light to identify elemental composition. Both the x-ray beams and the XRF light travel easily through dense materials, so XRF can serve as both a surface and a bulk analysis tool. Once a yardstick only used by physicists, chemists and materials scientists, synchrotron x-ray facilities now have easy-to-use XRF microscopes for new customers, such art historians and archaeologists, along with many others.

  • Read more about Art and Archaeology

Art and Archaeology

X-ray techniques can be applied to discover details about art and artifacts, otherwise invisible to the human eye, such as ancient inscriptions in two-thousand year old stone tablets have mostly eroded away due weathering. Elements like iron and lead, which were buried in the stone during chiseling, carving and subsequent painting, can be detected.

  • Read more about Art and Archaeology

Pagination

  • Previous page ‹‹
  • Page 2
Subscribe to art & archaeology

Footer menu

  • Newsletter
  • CLASSE
  • Contact
  • Staff
  • Feedback
  • Web Accessibility Help
The Cornell High Energy Synchrotron Source (CHESS) is operated and managed by Cornell University.
CHESS/Wilson Lab 161 Synchrotron Drive Ithaca, NY 14853
© 2025 Cornell High Energy Synchrotron Source