Causal Paths Allowing Simultaneous Control of Multiple Nanoparticle Properties Using Multi‐Target Bayesian Inference
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Authors
Ting, Jonathan Y. C.
Li, Sichao
Barnard, Amanda
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Volume Title
Publisher
Wiley
Abstract
Machine learning can extract complex structure/property relationships but is
often insufficient to explain how to control or tune the properties of materials,
particularly when they are multi-functional. This study demonstrates the value
of combining multi-target regression and multi-target causal graphs to
address the need to simultaneously control multiple properties of
nanomaterials, and the need to translate these relationships into actionable
insights. Using nanodiamonds as an exemplar, recursive feature elimination
is first used to identify nine structural features that allow simultaneous
prediction of their electron charge transfer properties and thermochemical
stability to high accuracy by an interpretable random forest regressor. A
multi-target Bayesian network with domain knowledge incorporated via
interactive learning using a hill-climbing algorithm then determines how
these important structural features of nanodiamonds relate to their functional
properties, proposing causal paths that can be used to inform
experimental design.
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Advanced Theory and Simulations
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Book Title
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Open Access
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Creative Commons Attribution-NonCommercial License
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