Atomistic mechanisms of nonstoichiometry-induced twin boundary structural transformation in titanium dioxide

Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs...

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Published inNature communications Vol. 6; no. 1; p. 7120
Main Authors Sun, Rong, Wang, Zhongchang, Saito, Mitsuhiro, Shibata, Naoya, Ikuhara, Yuichi
Format Journal Article
LanguageEnglish
Published London Nature Publishing Group UK 11.05.2015
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Abstract Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO 2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations. Grain boundaries in polycrystalline materials strongly influence their mechanical properties. Here, the authors investigate polycrystalline TiO 2 by high-resolution electron microscopy and observe that structural defects form ordered structures at grain boundaries influencing their properties.
AbstractList Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO 2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations.
Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO 2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations. Grain boundaries in polycrystalline materials strongly influence their mechanical properties. Here, the authors investigate polycrystalline TiO 2 by high-resolution electron microscopy and observe that structural defects form ordered structures at grain boundaries influencing their properties.
Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations.
Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations.Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in substantially affecting their properties, yet atomic-scale knowledge on the transformation process is far from developed. In particular, whether GBs loaded with defects due to treatments can still be conventionally considered as disordered areas with kinetically trapped structure or turn ordered is debated. Here we combine advanced electron microscopy, spectroscopy and first-principles calculations to probe individual TiO2 GB subject to different atmosphere, and to demonstrate that stimulated structural defects can self-assemble at GB, forming an ordered structure, which results in GB nonstoichiometry and structural transformations at the atomic scale. Such structural transformation is accompanied with electronic transition at GB. The three-dimensional transformations afford new perspectives on the structural defects at GBs and on the development of strategies to manipulate practically significant GB transformations.
ArticleNumber 7120
Author Sun, Rong
Shibata, Naoya
Saito, Mitsuhiro
Wang, Zhongchang
Ikuhara, Yuichi
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  organization: Institute of Engineering Innovation, The University of Tokyo
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  fullname: Wang, Zhongchang
  email: zcwang@wpi-aimr.tohoku.ac.jp
  organization: Advanced Institute for Materials Research, Tohoku University
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  givenname: Mitsuhiro
  surname: Saito
  fullname: Saito, Mitsuhiro
  organization: Advanced Institute for Materials Research, Tohoku University
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  givenname: Naoya
  surname: Shibata
  fullname: Shibata, Naoya
  organization: Institute of Engineering Innovation, The University of Tokyo
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  givenname: Yuichi
  surname: Ikuhara
  fullname: Ikuhara, Yuichi
  email: ikuhara@sigma.t.u-tokyo.ac.jp
  organization: Institute of Engineering Innovation, The University of Tokyo, Advanced Institute for Materials Research, Tohoku University, Nanostructures Research Laboratory, Japan Fine Ceramics Center
BackLink https://www.ncbi.nlm.nih.gov/pubmed/25958793$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
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Snippet Grain boundary (GB) phase transformations often occur in polycrystalline materials while exposed to external stimuli and are universally implicated in...
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Development strategies
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Titanium dioxide
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Title Atomistic mechanisms of nonstoichiometry-induced twin boundary structural transformation in titanium dioxide
URI https://link.springer.com/article/10.1038/ncomms8120
https://www.ncbi.nlm.nih.gov/pubmed/25958793
https://www.proquest.com/docview/1679888977
https://www.proquest.com/docview/1680209443
https://pubmed.ncbi.nlm.nih.gov/PMC4432645
Volume 6
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