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OLŠOVSKÁ, E. TOKARSKÝ, J. MICHALIČKA, J. MAMULOVÁ KUTLÁKOVÁ, K.
Original Title
Simple and fast method for determination of preferred crystallographic orientation of nanoparticles: A study on ZnS/kaolinite nanocomposite
Type
journal article in Web of Science
Language
English
Original Abstract
Crystallographic orientation of nanoparticles anchored on surface of solid crystalline matrix plays an important role in the resulting activity (e.g. the catalytic activity) of such structured nanocomposites. Possibility to predict the crystallographic orientation can thus be advantageous in many areas of materials science. This study presents a simple method of such prediction by determining the structure compatibility of two crystal structures based on the average number of pairs of overlapping atoms calculated from the mutual rotation of two (hkl) planes: one plane belonging to the nanoparticle crystal structure, the second one belonging to the matrix crystal structure. In this work, the structure compatibility of photocatalytic ZnS nanoparticles and tetrahedral kaolinite surface was studied. Results were compared with molecular simulations and with the high-resolution transmission electron microscopy analysis performed on a sample of the real ZnS/kaolinite nanocomposite. All three approaches led to identical result: the same preferred crystallographic orientation of ZnS on the tetrahedral surface of kaolinite was found. The method of determining structure compatibility is the fastest of the three approaches used, and thus appears to be very suitable for the purpose of predicting the preferred crystallographic orientation.
Keywords
ZnS; Kaolinite; Structure compatibility; Molecular modeling; HRTEM
Authors
OLŠOVSKÁ, E.; TOKARSKÝ, J.; MICHALIČKA, J.; MAMULOVÁ KUTLÁKOVÁ, K.
Released
1. 4. 2021
Publisher
ELSEVIER
Location
AMSTERDAM
ISBN
0169-4332
Periodical
Applied Surface Science
Year of study
544
Number
1
State
Kingdom of the Netherlands
Pages from
148966-1
Pages to
148966-9
Pages count
9
URL
https://www.sciencedirect.com/science/article/pii/S0169433221000428?via%3Dihub