Atomic scale trap state characterization by dynamic tunneling force microscopy

Update Item Information
Publication Type pre-print
School or College College of Science
Department Physics
Creator Williams, Clayton C.
Other Author Wang, R.; King, S. W.
Title Atomic scale trap state characterization by dynamic tunneling force microscopy
Date 2014-01-01
Description Dynamic tunneling force microscopy (DTFM) is applied to the study of point defects in an inter-layer dielectric film. A recent development enables simultaneous acquisition of DTFM, surface potential, and topographic images while under active height feedback control. The images show no clear correlation between trap state location and surface potential or topography of the surface. The energy and depth of individual trap states are determined by DTFM images obtained at different probe tip heights and applied voltages and quantitative tunneling and electrostatic models. The measured density of states in these films is found to be approximately 11019cm3eV1 near the dielectric film surface.
Type Text
Publisher American Institute of Physics (AIP)
Volume 105
Issue 5
First Page 052903-1
Last Page 052903-5
Language eng
Bibliographic Citation Wang, R., King, S. W., & Williams, C. C. (2014). Atomic scale trap state characterization by dynamic tunneling force microscopy. Applied Physics Letters, 105(5), 052903-1-052903-5.
Rights Management (c)American Institute of Physics. The following article appeared in Wang, R., King, S. W., & Williams, C. C. Applied Physics Letters, 105(5) 2014 and may be found at http://dx.doi.org/10.1063/1.4890966.
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Identifier uspace,18901
ARK ark:/87278/s63j6p3v
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Reference URL https://collections.lib.utah.edu/ark:/87278/s63j6p3v
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