Effect of hydrostatic pressure on structural and electronic properties of TGS crystals (first-principle calculations)

Effect of hydrostatic pressure on structural and electronic properties of TGS crystals (first-principle calculations)

First principle calculations of the effect of hydrostatic pressure on the structural and electronic parameters of TGS crystals have been carried out within the framework of density functional theory using the CASTEP code. The volume dependence of total electronic energy E(V) of the crystal unit cell...

Ausführliche Beschreibung

Gespeichert in:

Bibliographische Detailangaben
Veröffentlicht in:	Condensed Matter Physics
Datum:	2007
Hauptverfasser:	Andriyevsky, B., Ciepluch-Trojanek, W., Patryn, A.
Format:	Artikel
Sprache:	English
Veröffentlicht:	Інститут фізики конденсованих систем НАН України 2007
Online Zugang:	https://nasplib.isofts.kiev.ua/handle/123456789/117915
Tags:	Tag hinzufügen Keine Tags, Fügen Sie den ersten Tag hinzu!
Назва журналу:	Digital Library of Periodicals of National Academy of Sciences of Ukraine
Zitieren:	Effect of hydrostatic pressure on structural and electronic properties of TGS crystals (first-principle calculations) / B. Andriyevsky, W. Ciepluch-Trojanek, A. Patryn // Condensed Matter Physics. — 2007. — Т. 10, № 1(49). — С. 33-38. — Бібліогр.: 13 назв. — англ.

Institution

Digital Library of Periodicals of National Academy of Sciences of Ukraine

Ähnliche Einträge

The first principle calculation of electronic and optical properties of AlN, GaN and InN compounds under hydrostatic pressure
von: Berrah, S., et al.
Veröffentlicht: (2006)

Critical indices of the ferroelectric phase transition in TGS crystals
von: Myshchyshyn, O., et al.
Veröffentlicht: (1999)

Peculiarities of refractive index dispersion of TGS crystals
von: Myshchyshyn, O.Ya., et al.
Veröffentlicht: (1999)

Band electron spectrum and optical properties of KDP-crystals under the external hydrostatic pressure
von: Stetsiv, R.Ya.
Veröffentlicht: (1999)

Anisotropy of critical indices of ferroelectric phase transition in TGS crystals by the optical interference investigation
von: Andriyevsky, B.V., et al.
Veröffentlicht: (1999)

The effect of hydrostatic pressure on transverse dielectric permeability of KH₂PO₄ crystals
von: Kedyulich, V.M., et al.
Veröffentlicht: (2002)

First-Principles Calculation of Electronic Structure and Effective Mass of a TlInS₂ Crystal
von: Ismayilova, N.A., et al.
Veröffentlicht: (2016)

Effect of hydrostatic pressure on the magnetic susceptibility of MnF2 single crystal
von: A. S. Panfilov, et al.
Veröffentlicht: (2021)

Effect of hydrostatic pressure on the kinetics of ordering of ferroelectrics upon first-order phase transitions
von: Ju. Mazur, et al.
Veröffentlicht: (2016)

Comparison of polarization switching in ferroelectric TGS and relaxor SBN crystals
von: Matyjasek, K., et al.
Veröffentlicht: (2013)

Effect of hydrostatic pressure on the energy expenditure during drilling
von: O. A. Pashchenko
Veröffentlicht: (2016)

Hydrostatic pressure in granular environment
von: O. I. Herasymov, et al.
Veröffentlicht: (2022)

Hydrostatic pressure in granular environment
von: Gerasymov, Oleg I., et al.
Veröffentlicht: (2022)

The influence of hydrostatic pressure on DADP-type antiferroelectrics
von: Levitskii, R.R., et al.
Veröffentlicht: (1998)

Elastic properties of B19’ structure of NiTi alloy under uniaxial and hydrostatic loading from first principles
von: Sestak, P., et al.
Veröffentlicht: (2008)

Discrete models of plastic deformation of solids under effect of high hydrostatic pressure
von: Yu. Kozak
Veröffentlicht: (2016)

Pressure dependence of elastic and dynamical properties of zinc-blende ZnS and ZnSe from first principle calculation
von: Wang, H.Y., et al.
Veröffentlicht: (2012)

Sensor of hydrostatic pressure based on gallium antimonide microcrystals
von: A. A. Druzhinin, et al.
Veröffentlicht: (2015)

Structural, electronic, mechanical and optical properties of LaIn3 under pressure: A first principle investigation
von: Yulu Wan, et al.
Veröffentlicht: (2021)

Influence of high hydrostatic pressure on energetic structure and electron-lattice coupling of transition metal and rare earth related centers in solids
von: Grinberg, M., et al.
Veröffentlicht: (2004)

Electronic structure and magnetic properties of RT4Al8 (R = Sc, Y, La, Lu; T = Fe, Mn, Cr) compounds. Hydrostatic pressure effect
von: I. P. Zhuravljova, et al.
Veröffentlicht: (2016)

Electronic structure of cubic ScF₃ from first-principles calculations
von: Bocharov, D., et al.
Veröffentlicht: (2016)

The inﬂuence of hydrostatic pressure on phase transition in ferroelectrics of displacement type
von: Slivka, A.G.
Veröffentlicht: (2000)

Longitudinal dielectric relaxation in KD₂PO₄ under hydrostatic pressure
von: Levitskii, R.R., et al.
Veröffentlicht: (2002)

Electronic structure of cubic ScF3 from first-principles calculations
von: D. Bocharov, et al.
Veröffentlicht: (2016)

The structural, mechanical, electronic, optical and thermodynamic properties of t-X₃As₄ (X = Si, Ge and Sn) by first-principles calculations
von: Yang, R., et al.
Veröffentlicht: (2018)

The critical current reaction on hydrostatic pressure of a superconductor–semimetal composite
von: V. V. Kononenko, et al.
Veröffentlicht: (2015)

The effect of hydrostatic pressure on thermodynamic characteristics of NH₃CH₂COOH·H₂PO₃ type ferroelectric materials
von: Zachek, I.R., et al.
Veröffentlicht: (2017)

First principles calculation of lithium-phosphorus co-doped diamond
von: Shao, Q.Y., et al.
Veröffentlicht: (2013)

First-principles calculations atomic structure and elastic properties of Ti-Nb alloys
von: Timoshevskii, A.N., et al.
Veröffentlicht: (2012)

Redistribution of oxygen ions in YBa2Cu3O7–x single crystals due to external hydrostatic pressure
von: Ju. I. Bojko, et al.
Veröffentlicht: (2018)

First-principles study of the structural, phonon, elastic, and thermodynamic properties of Al3Ta compound under high pressure
von: Leini, W., et al.
Veröffentlicht: (2018)

Elastic and electronic properties of fluorite RuO₂ from first principle
von: Yang, Z.J., et al.
Veröffentlicht: (2012)

Texture studies of the deformed ultra-low carbon steel after hydrostatic pressure torsion
von: V. Z. Kutsova, et al.
Veröffentlicht: (2017)

Using the differential method for determining quasi-hydrostatic pressures in the cells of six-punch presses
von: A. V. Burchenia, et al.
Veröffentlicht: (2021)

Structural evolution of ZrO₂-Y₂O₃ xerogels under high hydrostatic pressure
von: Gorban, O.A., et al.
Veröffentlicht: (2010)

Effect of hydrostatic pressure up to 12 kbar on the electricalresistance of Y0.77Pr0.23Ba2Cu3O7–δ single crystals
von: G. Khadzhai, et al.
Veröffentlicht: (2021)

Using of high hydrostatic pressure for control of porous structure and surface state of zirconium dioxide nanoparticles
von: O. A. Gorban, et al.
Veröffentlicht: (2012)

Density functional theory study of the α → ω martensitic transformation in titanium induced by hydrostatic pressure
von: Jafari, M., et al.
Veröffentlicht: (2013)

Evolution of electrical resistance of YBa2Cu3O7–δ single crystals (δ ≈ 0.45) with applying high hydrostatic pressure
von: R. V. Vovk, et al.
Veröffentlicht: (2012)