Method of investigation of nanoparticles for materials of complex rheologies
UDC
539.3DOI:
https://doi.org/10.31429/vestnik-20-3-50-56Abstract
In earlier works of the authors, the problem of modeling the self-organization and self-assembly of nanoparticles into fragments of nanomaterials was investigated.
It was assumed that nanoparticles are represented by a material described by the Helmholtz equation, for which the corresponding boundary value problem was solved. In the event that a nanoparticle has a carrier in the form of a strip, the problem of representing the solution of a vector boundary value problem is solved quite simply with the help of a set of solutions to scalar problems in the strip.
However, in the case of regions with a piecewise smooth boundary, this becomes less obvious. In this regard, the paper shows that such a decomposition is feasible for rectangular wedge-type regions. Using solutions in this domain, one can construct asymptotic and approximate solutions for such a nonclassical domain as a rectangle. The approach used in the work is, based on a new universal modeling method.
Keywords:
nanoparticles, boundary value problems, block element method, packed block elements, Lame equations, Helmholtz equationsAcknowledgement
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Copyright (c) 2023 Zaretskaya M.V., Babeshko V.A., Telyatnikov I.S., Snetkov D.A.
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