Predicting the Probability of Observation of Arbitrary Graphene Oxide Nanoflakes Using Artificial Neural Networks
Date
2022
Authors
Motevalli, Benyamin
Hyde, Lachlan
Fox, Bronwyn L.
Barnard, Amanda
Journal Title
Journal ISSN
Volume Title
Publisher
Wiley
Abstract
Although it has been well established that the stability and properties of
graphene oxide nanostructure are strongly influenced by the concentration,
type, and distribution of oxygen groups on the surface, there has yet to be a
definitive way of predicting the thermochemical stability in advance of
detailed and time-consuming experimentation or simulation. In this study, a
data set of over 60 000 unique graphene oxide nanoflakes and supervised
machine learning methods are used to predict the probability of observation
(stability) with perfect accuracy, based on a limited set of structural features
that can be controlled in advance. A decision tree is used to show how the
features determine the stability, and a neural network provides an equation to
predict the thermodynamic stability of virtually any configuration in minutes.
This enables researchers to use machine learning as research planning tool or
to assist in analyzing results from microanalysis.
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Keywords
design, graphene oxide, machine learning, manufacture
Citation
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Source
Advanced Theory and Simulations
Type
Journal article
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Access Statement
Open Access
License Rights
Creative Commons Attribution-NonCommercial-NoDerivs License
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