2009 - IEEE Fellow For development of superconductive and cryogenic radio frequency circuits for nuclear magnetic resonance probes
The scientist’s investigation covers issues in Crystallography, Electron diffraction, Crystal structure, Condensed matter physics and Inorganic chemistry. The Crystallography study combines topics in areas such as X-ray crystallography, Diffraction and Pyrochlore. His Electron diffraction research incorporates elements of Molecular physics, Reciprocal lattice, Lanthanide and Phase transition.
His work deals with themes such as Perovskite, Space group and Vacancy defect, which intersect with Crystal structure. He has researched Condensed matter physics in several fields, including Ferroelectricity, Atmospheric temperature range, Ceramic, Permittivity and Dielectric loss. Raymond Withers combines subjects such as Silver phosphate, Visible light irradiation, Semiconductor and Aqueous solution with his study of Inorganic chemistry.
His primary areas of study are Crystallography, Electron diffraction, Crystal structure, Condensed matter physics and Solid solution. His biological study spans a wide range of topics, including X-ray crystallography and Diffraction. His Electron diffraction study combines topics in areas such as Orthorhombic crystal system, Phase transition, Reciprocal lattice, Perovskite and Tetragonal crystal system.
His Crystal structure study combines topics from a wide range of disciplines, such as Inorganic chemistry and Space group. His research in Condensed matter physics intersects with topics in Diffuse scattering and Ferroelectricity, Dielectric. His Solid solution research integrates issues from Fluorite and Vacancy defect.
Raymond Withers mainly focuses on Condensed matter physics, Ferroelectricity, Crystallography, Dielectric and Electron diffraction. His research integrates issues of Antiferroelectricity, Neutron diffraction, Dielectric loss and Ceramic in his study of Condensed matter physics. His work on Piezoresponse force microscopy and Multiferroics as part of general Ferroelectricity study is frequently connected to Resonant ultrasound spectroscopy, therefore bridging the gap between diverse disciplines of science and establishing a new relationship between them.
Raymond Withers combines subjects such as Space group and Metal with his study of Crystallography. His Electron diffraction study results in a more complete grasp of Diffraction. His Crystal structure study frequently intersects with other fields, such as Solid solution.
His primary areas of investigation include Condensed matter physics, Research council, Dielectric, Ceramic and Nanotechnology. His Condensed matter physics research is multidisciplinary, incorporating perspectives in Antiferroelectricity, Solid solution, Atmospheric temperature range, Permittivity and Dielectric loss. Raymond Withers interconnects Solution chemistry, Rutile and Crystal in the investigation of issues within Dielectric.
His work carried out in the field of Ceramic brings together such families of science as Point reflection, Ferroelectricity, Crystallography, Polarization and Electron diffraction. His Ferroelectricity research focuses on Composite material and how it relates to Crystal chemistry. In most of his Crystallography studies, his work intersects topics such as Piezoelectricity.
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An orthophosphate semiconductor with photooxidation properties under visible-light irradiation
Zhiguo Yi;Jinhua Ye;Naoki Kikugawa;Tetsuya Kako.
Nature Materials (2010)
Electron-pinned defect-dipoles for high-performance colossal permittivity materials
Wanbiao Hu;Yun Liu;Ray L. Withers;Terry J. Frankcombe.
Nature Materials (2013)
Structure refinement of commensurately modulated bismuth strontium tantalate, Bi2SrTa2O9
A. D. Rae;J. G. Thompson;R. L. Withers.
Acta Crystallographica Section B-structural Science (1992)
Structure refinement of commensurately modulated bismuth titanate, Bi4Ti3O12
A. D. Rae;J. G. Thompson;R. L. Withers;A. C. Willis.
Acta Crystallographica Section B-structural Science (1990)
The crystal chemistry underlying ferroelectricity in Bi4Ti3O12, Bi3TiNbO9, and Bi2WO6
R.L. Withers;J.G. Thompson;A.D. Rae.
Journal of Solid State Chemistry (1991)
Antiferroelectrics for Energy Storage Applications: a Review
Zhen Liu;Zhen Liu;Teng Lu;Jiaming Ye;Genshui Wang.
Advanced materials and technologies (2018)
Structural transitions and complex domain structures across a ferroelectric-to-antiferroelectric phase boundary in epitaxial Sm-doped BiFeO 3 thin films
C.-J. Cheng;D. Kan;S.-H. Lim;W. R. McKenzie.
Physical Review B (2009)
Large electric field-induced strain and antiferroelectric behavior in (1-x)(Na 0.5 Bi 0.5 )TiO 3 -x BaTiO 3 ceramics
Yiping Guo;Yiping Guo;Yun Liu;Raymond Withers;Frank Brink.
Chemistry of Materials (2011)
Composition-induced antiferroelectric phase and giant strain in lead-free (Na y ,Bi z )Ti 1- x O 3(1- x ) -xBaTiO 3 ceramics
Yiping Guo;Mingyuan Gu;Haosu Luo;Yun Liu.
Physical Review B (2011)
Colossal Dielectric Behavior of Ga+Nb Co-Doped Rutile TiO2
Wen Dong;Wanbiao Hu;Adam Berlie;Kenny Lau.
ACS Applied Materials & Interfaces (2015)
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