Author(s)
Eric J. Amis, X D. Xiang, J C. Zhao
Abstract
Combinatorial methods, or high throughput experimentations, have captured the attention of the materials industry due to the promise of providing new discoveries faster, better, and cheaper. However, in the scientific community combinatorial methods have often met with less enthusiasm, perhaps due to a perception of the combinatorial methodology as an Edisonian approach to science. The facts are quite to the contrary. In addition to the impressive successes from applications of combinatorial methods to materials discovery, results coming out of systematic high-throughput investigations of complex materials phenomena (which would otherwise be too time-consuming or expensive to undertake) provide data leading to theories and models of materials chemistry and physics. Indeed, rather than increasing the dependence of materials design on serendipitous observations, combinatorial methods provide a new paradigm for advancing a central scientific goal -- fundamental understanding of structure-property relationships of materials behavior.
Keywords
combinatorial methods, high throughput experimentation, phase behavior
Citation
Amis, E.
, Xiang, X.
and Zhao, J.
(2002),
Combinatorial Materials Science: What's New Since Edison?, Mrs Bulletin, [online], https://tsapps.nist.gov/publication/get_pdf.cfm?pub_id=851984 (Accessed May 17, 2026)
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