First principles approach to identification of potential ferroelectric and multiferroic molecular materials

Flexible electronics have garnered much interest over the past several decades. Hybrid organic-inorganic materials, such as metal-organic frameworks, offer a unique opportunity to encompass the effective electronic properties of the inorganic material and the flexible nature of the organic with the...

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Main Author: Plaisance, Brandon P.
Other Authors: Sholl, David S.
Format: Others
Language:en_US
Published: Georgia Institute of Technology 2016
Subjects:
Online Access:http://hdl.handle.net/1853/55039
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spelling ndltd-GATECH-oai-smartech.gatech.edu-1853-550392016-06-28T03:34:23ZFirst principles approach to identification of potential ferroelectric and multiferroic molecular materialsPlaisance, Brandon P.FerroelectricityMultiferroicityMetal-organic frameworksAb initioFlexible electronics have garnered much interest over the past several decades. Hybrid organic-inorganic materials, such as metal-organic frameworks, offer a unique opportunity to encompass the effective electronic properties of the inorganic material and the flexible nature of the organic with the potential of enhancing other desirable properties, such as the contributing multiferroicity. Using a first principles approach, the goal of this thesis is to serve as a guide for identifying potential ferroelectric and multiferroic metal-organic frameworks. This is done through a screening method of metal-organic frameworks based on their geometry; certain symmetry operators cannot be present in a ferroelectric material. We report the theoretical spontaneous polarization for several dozens of MOFs in which ferroelectricity has not previously been tested, and further we discuss the likelihood that these materials could be engineered to have either increased polarization or added ferromagnetism, the latter of which would lead to multiferroicity.Georgia Institute of TechnologySholl, David S.2016-05-27T13:24:50Z2016-05-27T13:24:50Z2016-052016-04-28May 20162016-05-27T13:24:50ZThesisapplication/pdfhttp://hdl.handle.net/1853/55039en_US
collection NDLTD
language en_US
format Others
sources NDLTD
topic Ferroelectricity
Multiferroicity
Metal-organic frameworks
Ab initio
spellingShingle Ferroelectricity
Multiferroicity
Metal-organic frameworks
Ab initio
Plaisance, Brandon P.
First principles approach to identification of potential ferroelectric and multiferroic molecular materials
description Flexible electronics have garnered much interest over the past several decades. Hybrid organic-inorganic materials, such as metal-organic frameworks, offer a unique opportunity to encompass the effective electronic properties of the inorganic material and the flexible nature of the organic with the potential of enhancing other desirable properties, such as the contributing multiferroicity. Using a first principles approach, the goal of this thesis is to serve as a guide for identifying potential ferroelectric and multiferroic metal-organic frameworks. This is done through a screening method of metal-organic frameworks based on their geometry; certain symmetry operators cannot be present in a ferroelectric material. We report the theoretical spontaneous polarization for several dozens of MOFs in which ferroelectricity has not previously been tested, and further we discuss the likelihood that these materials could be engineered to have either increased polarization or added ferromagnetism, the latter of which would lead to multiferroicity.
author2 Sholl, David S.
author_facet Sholl, David S.
Plaisance, Brandon P.
author Plaisance, Brandon P.
author_sort Plaisance, Brandon P.
title First principles approach to identification of potential ferroelectric and multiferroic molecular materials
title_short First principles approach to identification of potential ferroelectric and multiferroic molecular materials
title_full First principles approach to identification of potential ferroelectric and multiferroic molecular materials
title_fullStr First principles approach to identification of potential ferroelectric and multiferroic molecular materials
title_full_unstemmed First principles approach to identification of potential ferroelectric and multiferroic molecular materials
title_sort first principles approach to identification of potential ferroelectric and multiferroic molecular materials
publisher Georgia Institute of Technology
publishDate 2016
url http://hdl.handle.net/1853/55039
work_keys_str_mv AT plaisancebrandonp firstprinciplesapproachtoidentificationofpotentialferroelectricandmultiferroicmolecularmaterials
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