Data-driven Discovery of New Two- and One-dimensional Materials and Lattice-commensurate Heterostructures
ORAL
Abstract
We employ data-driven methods to discover new two- and one-dimensional materials. Layered materials have attracted interest for technological applications and fundamental physics. But only a few van der Waals solids have been subject to considerable research focus. Through data mining, we identify 1173 two-dimensional layered materials and 487 weakly bonded one-dimensional molecular chains. This is an order of magnitude increase in the number of known materials. Moreover, we discover 98 heterostructures of two-dimensional and one-dimensional subcomponents that are found within bulk materials, opening new possibilities for van der Waals heterostructures.
To identify these materials, we present a novel data mining algorithm that determines the dimensionality of weakly bonded subcomponents. Chemical families, band gaps, and point groups and single-layer piezoelectricity of the materials identified with data mining are presented. Moreover, we expand on this work to new material compositions that can form layered materials.
To identify these materials, we present a novel data mining algorithm that determines the dimensionality of weakly bonded subcomponents. Chemical families, band gaps, and point groups and single-layer piezoelectricity of the materials identified with data mining are presented. Moreover, we expand on this work to new material compositions that can form layered materials.
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Presenters
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Gowoon Cheon
Stanford University, Stanford Univ
Authors
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Gowoon Cheon
Stanford University, Stanford Univ
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Karel-Alexander N. Duerloo
Boston Consulting Group, Stanford Univ
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Austin Sendek
Stanford University, Stanford Univ
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Chase Porter
Stanford University
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Yuan Chen
Department of Applied Physics, Stanford University, Stanford University
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Evan Reed
Stanford University, Stanford Univ, Materials Sciences and Engineering, Stanford