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Tomography in the Multiple Scattering Regime of the Scanning Transmission Electron Microscope

Published

Author(s)

Zachary H. Levine

Abstract

To date, nearly all tomography based on electron microscopy has been performed on samples 1 m or less thick. It has also relied on Beer s Law. In this work, tomographic reconstructions of a simulated scans of a photonic band-gap crystal based on bright-field imaging with a scanning transmission electron microscope are made assuming (1) multiple scattering or (2) the standard Beer s Law model. The results suggest that should be possible to treat systems several times larger than those which appear in literature, albeit at a worse resolution. The multiple scattering theory leads to high-quality reconstructions. Beer s Law does only a little worse despite being applied outside its range of validity.
Citation
Applied Physics Letters
Volume
82
Issue
No. 22

Keywords

electron microscope, multiple scattering, photonic band gap material, STEM, tomography

Citation

Levine, Z. (2003), Tomography in the Multiple Scattering Regime of the Scanning Transmission Electron Microscope, Applied Physics Letters (Accessed October 30, 2025)

Issues

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Created June 1, 2003, Updated February 17, 2017
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