Quantitative two-dimensional dopant profile measurement and inverse modeling by scanning capacitance microscopy

Update Item Information
Publication Type Journal Article
School or College College of Science
Department Physics
Creator Williams, Clayton C.; Huang, Yufeng
Other Author Slinkman, J.
Title Quantitative two-dimensional dopant profile measurement and inverse modeling by scanning capacitance microscopy
Date 1995
Description Quantitative dopant profile measurements are performed on a nanometer scale by scanning capacitance microscopy (SCM). An atomic force microscope is used to position a nanometer scale tip at a semiconductor surface, and local capacitance change is measured as a function of sample bias. A new feedback method has been demonstrated in which the magnitude of the ac bias voltage applied to the sample is adjusted to maintain a constant capacitance change as the tip is scanned across the sample surface.
Type Text
Publisher American Institute of Physics (AIP)
Journal Title Applied Physics Letters
Volume 66
Issue 3
First Page 344
Last Page 346
DOI 10.1063/1.114207
citatation_issn 36951
Subject Dopant profile; Capacitance change; Scanning capacitance microscopy; Feedback control
Subject LCSH Semiconductor doping; Semiconductor wafers; Scanning electron microscopy; Metal-insulator transitions
Language eng
Bibliographic Citation Huang, Y., Williams, C. C., & Slinkman, J. (1995). Quantitative two-dimensional dopant profile measurement and inverse modeling by scanning capacitance microscopy. Applied Physics Letters, 66(3), Jan., 344-6.
Rights Management (c)American Institute of Physics. The following article appeared in Huang, Y., Williams, C. C., & Slinkman, J., Applied Physics Letters, 66(3), 1995 and may be found at http://dx.doi.org/10.1063/1.114207
Format Medium application/pdf
Format Extent 30,686 bytes
Identifier ir-main,8573
ARK ark:/87278/s6n87v4z
Setname ir_uspace
ID 704626
Reference URL https://collections.lib.utah.edu/ark:/87278/s6n87v4z
Back to Search Results