Texture-engineered ceramics - Property enhancements through crystallographic tailoring

Gary Lynn Messing, Stephen Poterala, Yunfei Chang, Tobias Frueh, Elizabeth Rader Kupp, Beecher H. Watson, Rebecca L. Walton, Michael J. Brova, Anna Katharina Hofer, Raul Bermejo, Richard Joseph Meyer, Jr.

Research output: Contribution to journalReview article

17 Citations (Scopus)

Abstract

Texture-engineered ceramics enable access to a vast array of novel texture-property relations leading to property values ranging between those of single crystals and isotropic bulk ceramics. Recently developed templated grain growth and magnetic alignment texturing methods yield high quality crystallographic texture, and thus significant advances in achievable texture-engineered properties in magnetic, piezoelectric, electronic, optical, thermoelectric, and structural ceramics. In this paper, we outline the fundamental basis for these texture-engineered properties and review recent contributions to the field of texture-engineered ceramics with an update on the properties of textured lead-free and lead-based piezoelectrics. We propose that further property improvements can be realized through development of processes that improve crystallographic alignment of the grain structure, create biaxial texture, and explore a wider array of crystallographic orientations. There is a critical need to model the physics of texture-engineered ceramics, and more comprehensively characterize texture, thus enabling testing of texture orientation-property relations and materials performance. We believe that in situ measurements of texture evolution can lead to a more fundamental and comprehensive understanding of the mechanisms of texture development.

Original languageEnglish (US)
Pages (from-to)3219-3241
Number of pages23
JournalJournal of Materials Research
Volume32
Issue number17
DOIs
StatePublished - Sep 14 2017

Fingerprint

textures
Textures
ceramics
augmentation
Lead
alignment
Structural ceramics
Texturing
Crystal microstructure
in situ measurement
Grain growth
Physics
Single crystals
physics
single crystals
Testing
electronics

All Science Journal Classification (ASJC) codes

  • Materials Science(all)
  • Condensed Matter Physics
  • Mechanics of Materials
  • Mechanical Engineering

Cite this

Messing, Gary Lynn ; Poterala, Stephen ; Chang, Yunfei ; Frueh, Tobias ; Kupp, Elizabeth Rader ; Watson, Beecher H. ; Walton, Rebecca L. ; Brova, Michael J. ; Hofer, Anna Katharina ; Bermejo, Raul ; Meyer, Jr., Richard Joseph. / Texture-engineered ceramics - Property enhancements through crystallographic tailoring. In: Journal of Materials Research. 2017 ; Vol. 32, No. 17. pp. 3219-3241.
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Messing, GL, Poterala, S, Chang, Y, Frueh, T, Kupp, ER, Watson, BH, Walton, RL, Brova, MJ, Hofer, AK, Bermejo, R & Meyer, Jr., RJ 2017, 'Texture-engineered ceramics - Property enhancements through crystallographic tailoring', Journal of Materials Research, vol. 32, no. 17, pp. 3219-3241. https://doi.org/10.1557/jmr.2017.207

Texture-engineered ceramics - Property enhancements through crystallographic tailoring. / Messing, Gary Lynn; Poterala, Stephen; Chang, Yunfei; Frueh, Tobias; Kupp, Elizabeth Rader; Watson, Beecher H.; Walton, Rebecca L.; Brova, Michael J.; Hofer, Anna Katharina; Bermejo, Raul; Meyer, Jr., Richard Joseph.

In: Journal of Materials Research, Vol. 32, No. 17, 14.09.2017, p. 3219-3241.

Research output: Contribution to journalReview article

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AU - Messing, Gary Lynn

AU - Poterala, Stephen

AU - Chang, Yunfei

AU - Frueh, Tobias

AU - Kupp, Elizabeth Rader

AU - Watson, Beecher H.

AU - Walton, Rebecca L.

AU - Brova, Michael J.

AU - Hofer, Anna Katharina

AU - Bermejo, Raul

AU - Meyer, Jr., Richard Joseph

PY - 2017/9/14

Y1 - 2017/9/14

N2 - Texture-engineered ceramics enable access to a vast array of novel texture-property relations leading to property values ranging between those of single crystals and isotropic bulk ceramics. Recently developed templated grain growth and magnetic alignment texturing methods yield high quality crystallographic texture, and thus significant advances in achievable texture-engineered properties in magnetic, piezoelectric, electronic, optical, thermoelectric, and structural ceramics. In this paper, we outline the fundamental basis for these texture-engineered properties and review recent contributions to the field of texture-engineered ceramics with an update on the properties of textured lead-free and lead-based piezoelectrics. We propose that further property improvements can be realized through development of processes that improve crystallographic alignment of the grain structure, create biaxial texture, and explore a wider array of crystallographic orientations. There is a critical need to model the physics of texture-engineered ceramics, and more comprehensively characterize texture, thus enabling testing of texture orientation-property relations and materials performance. We believe that in situ measurements of texture evolution can lead to a more fundamental and comprehensive understanding of the mechanisms of texture development.

AB - Texture-engineered ceramics enable access to a vast array of novel texture-property relations leading to property values ranging between those of single crystals and isotropic bulk ceramics. Recently developed templated grain growth and magnetic alignment texturing methods yield high quality crystallographic texture, and thus significant advances in achievable texture-engineered properties in magnetic, piezoelectric, electronic, optical, thermoelectric, and structural ceramics. In this paper, we outline the fundamental basis for these texture-engineered properties and review recent contributions to the field of texture-engineered ceramics with an update on the properties of textured lead-free and lead-based piezoelectrics. We propose that further property improvements can be realized through development of processes that improve crystallographic alignment of the grain structure, create biaxial texture, and explore a wider array of crystallographic orientations. There is a critical need to model the physics of texture-engineered ceramics, and more comprehensively characterize texture, thus enabling testing of texture orientation-property relations and materials performance. We believe that in situ measurements of texture evolution can lead to a more fundamental and comprehensive understanding of the mechanisms of texture development.

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SN - 0884-2914

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