Vassaux, M;
Sinclair, RC;
Richardson, RA;
Suter, JL;
Coveney, PV;
(2020)
Toward High Fidelity Materials Property Prediction from Multiscale Modeling and Simulation.
Advanced Theory and Simulations
, 3
(1)
, Article 1900122. 10.1002/adts.201900122.
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Abstract
The current approach to materials discovery and design remains dominated by experimental testing, frequently based on little more than trial and error. With the advent of ever more powerful computers, rapid, reliable, and reproducible computer simulations are beginning to represent a feasible alternative. As high performance computing reaches the exascale, exploiting the resources efficiently presents interesting challenges and opportunities. Multiscale modeling and simulation of materials are extremely promising candidates for exploiting these resources based on the assumption of a separation of scales in the architectures of nanomaterials. Examples of hierarchical and concurrent multiscale approaches are presented which benefit from the weak scaling of monolithic applications, thereby efficiently exploiting large scale computational resources. Several multiscale techniques, incorporating the electronic to the continuum scale, which can be applied to the efficient design of a range of nanocomposites, are discussed. Then the work on the development of a software toolkit designed to provide verification, validation, and uncertainty quantification to support actionable prediction from such calculations is discussed.
Type: | Article |
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Title: | Toward High Fidelity Materials Property Prediction from Multiscale Modeling and Simulation |
Open access status: | An open access version is available from UCL Discovery |
DOI: | 10.1002/adts.201900122 |
Publisher version: | https://doi.org/10.1002/adts.201900122 |
Language: | English |
Additional information: | This version is the author accepted manuscript. For information on re-use, please refer to the publisher’s terms and conditions. |
Keywords: | multiscale modelling, molecular dynamics, finite element analysis, polymers, nanocomposites, chemical specificity, high performance computing, materials properties, verification validation and uncertainty quantification |
UCL classification: | UCL UCL > Provost and Vice Provost Offices > UCL BEAMS UCL > Provost and Vice Provost Offices > UCL BEAMS > Faculty of Maths and Physical Sciences UCL > Provost and Vice Provost Offices > UCL BEAMS > Faculty of Maths and Physical Sciences > Dept of Chemistry |
URI: | https://discovery-pp.ucl.ac.uk/id/eprint/10085709 |
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