Nanogoniometry with Scanning Force Microscopy: A Model Study of CdTe Thin Films
Source abstract
Abstract
Abstract In this paper scanning force microscopy is combined with simple but powerful data processing to determine quantitatively, on a sub‐micrometer scale, the orientation of surface facets present on crystalline materials. A high‐quality scanning force topography image is used to determine an angular histogram of the surface normal at each image point. In addition to the known method for the assignment of Miller indices to the facets appearing on the surface, a quantitative analysis is presented that allows the characterization of the relative population and morphological quality of each of these facets. Two different CdTe thin films are used as model systems to probe the capabilities of this method, which enables further information to be obtained about the thermodynamic stability of particular crystallographic facets. The method, which is referred to as nanogoniometry, will be a powerful tool to study in detail the surface of crystalline materials, particularly thin films, with sub‐micrometer resolution.
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Research context
OpenAlex topics: Force Microscopy Techniques and Applications · nanoparticles nucleation surface interactions · Surface and Thin Film Phenomena
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References (29)
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27. The program is freely available upon request.
28. In fact for larger windows the number of points used for evaluating the surface normal scales as 2 nfor the slope method but asn2for the plane method. Accordingly noise is expected to decrease asn1/2in the first case and asnin the second.
29. Nϕis given byNϕ=(max(ϕ)−min(ϕ))/Δϕ with the category width Δϕ being a variable parameter that can be freely adjusted. The same is done forNθ.