Thermal expansion and Debye temperature of Ti-Zr-Ni quasi-crystal
Thermal expansion coefficient and Debye temperature of single-phase Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasi-crystal have been determined from changes in the positions and intensities of X-ray deffraction lines within 80-300 K temperature range. The thermal expansion of the icosahedral crystal has been found to be is...
Saved in:
| Published in: | Functional Materials |
|---|---|
| Date: | 2006 |
| Main Authors: | Malykhin, S.V., Pugachov, A.T., Chernokhvostenko, E.E. |
| Format: | Article |
| Language: | English |
| Published: |
НТК «Інститут монокристалів» НАН України
2006
|
| Online Access: | https://nasplib.isofts.kiev.ua/handle/123456789/135075 |
| Tags: |
Add Tag
No Tags, Be the first to tag this record!
|
| Journal Title: | Digital Library of Periodicals of National Academy of Sciences of Ukraine |
| Cite this: | Thermal expansion and Debye temperature of Ti-Zr-Ni quasi-crystal / S.V. Malykhin, A.T. Pugachov, E.E. Chernokhvostenko // Functional Materials. — 2006. — Т. 13, № 4. — С. 596-599. — Бібліогр.: 16 назв. — англ. |
Institution
Digital Library of Periodicals of National Academy of Sciences of UkraineSimilar Items
Residual stresses in Ti₄₁¸₅Zr₄₁¸₅Ni₁₇ quasi-crystalline ribbons measured by X-ray diffraction
by: Malykhin, S.
Published: (2007)
by: Malykhin, S.
Published: (2007)
Electrical resistivity of Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals in the temperature region 0.3–300 K
by: Azhazha, V.M., et al.
Published: (2005)
by: Azhazha, V.M., et al.
Published: (2005)
Structure transformations and thermal expansion in Al–Ni–Zr and Al–Ni–Hf aluminum alloys
by: S. I. Mudryi, et al.
Published: (2016)
by: S. I. Mudryi, et al.
Published: (2016)
Stability of thin quasi-crystalline Ti-Zr-Ni films and related crystalline phases under low-energy transient plasma irradiation
by: Malykhin, S.V., et al.
Published: (2022)
by: Malykhin, S.V., et al.
Published: (2022)
Structure and substructure variations of icosahedral Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals under irradiation imitating outer space factors
by: Bazdyreva, S.V., et al.
Published: (2015)
by: Bazdyreva, S.V., et al.
Published: (2015)
Modification of Ti-Zr-Ni alloys by powerful plasma stream of different gases
by: Bazdyrieva, S.V., et al.
Published: (2015)
by: Bazdyrieva, S.V., et al.
Published: (2015)
Debye model for the surface phonons
by: Yu. M. Poluektov
Published: (2021)
by: Yu. M. Poluektov
Published: (2021)
Behavior of the Ti-Zr-Ni thin film containing quasicrystalline and approximant phases under radiative-thermal action in transition modes
by: Malykhin, S.V., et al.
Published: (2020)
by: Malykhin, S.V., et al.
Published: (2020)
The Theory of the Dynamical Krivoglaz—Debye—Waller Factor
by: S. V. Dmitriev, et al.
Published: (2015)
by: S. V. Dmitriev, et al.
Published: (2015)
The influence of irradiation by hydrogen plasma on the structure and phase compozition Ti-Zr-Ni alloys containing quasicrystalline phase
by: Bazdyreva, S.V., et al.
Published: (2012)
by: Bazdyreva, S.V., et al.
Published: (2012)
Influence of the hydrogen saturation temperature on the structure of melt-spun Ti₃₀Zr₄₅Ni₂₅ alloy
by: Dmytrenko, O.Ye., et al.
Published: (2018)
by: Dmytrenko, O.Ye., et al.
Published: (2018)
Structural-phase transformations in magnetron deposited films of Ti-Zr-Ni systems during annealing in vacuum
by: Malykhin, S.V., et al.
Published: (2022)
by: Malykhin, S.V., et al.
Published: (2022)
Synthesis of the Ti-Zr-Ni alloys by the "hydride cycle" method
by: Dmytrenko, O.E., et al.
Published: (2022)
by: Dmytrenko, O.E., et al.
Published: (2022)
Structure and thermal expansion of the low-temperature phase of SF ₂
by: Isakina, A.P., et al.
Published: (2000)
by: Isakina, A.P., et al.
Published: (2000)
Синтез и стабильность Ti-Zr-Ni-квазикристаллов
by: Ажажа, В.М., et al.
Published: (2007)
by: Ажажа, В.М., et al.
Published: (2007)
Structural-phase changes in thin films and surface layers of Ti41.5Zr41.5Ni17 alloy, stimulated by radiation-thermal impact of hydrogen plasma
by: Malykhin, S.V., et al.
Published: (2019)
by: Malykhin, S.V., et al.
Published: (2019)
Cavitation and erosion resistance of vacuum arc Ti, Ti-Al, Ti-Zr, and Ti-Ni coatings
by: Klimenko, І.О., et al.
Published: (2022)
by: Klimenko, І.О., et al.
Published: (2022)
First principle methods for calculating the linear coefficient of thermal expansion of quasi-binary eutectic systems
by: D. A. Zakarian, et al.
Published: (2021)
by: D. A. Zakarian, et al.
Published: (2021)
Negative thermal expansion of fullerite C₆₀ at liquid helium temperatures
by: Aleksandrovskii, A.N., et al.
Published: (1997)
by: Aleksandrovskii, A.N., et al.
Published: (1997)
The thermal expansion of single-walled carbon nanotubes at low temperatures
by: Dolbin, A.V.
Published: (2009)
by: Dolbin, A.V.
Published: (2009)
Особенности структуры и свойств Ti-Zr-Ni-квазикристаллов
by: Ажажа, В.М., et al.
Published: (2009)
by: Ажажа, В.М., et al.
Published: (2009)
Static Krivoglaz—Debye—Waller Factor for Spherical New-Phase Particles
by: O. S. Skakunova
Published: (2015)
by: O. S. Skakunova
Published: (2015)
Static Krivoglaz—Debye—Waller Factor for Spherical New-Phase Particles
by: Skakunova, O.S.
Published: (2015)
by: Skakunova, O.S.
Published: (2015)
Peculiarities of thermal expansion of quasi-two-dimensional organic conductor к−(BEDT–TTF)2Cu
by: A. V. Dolbin, et al.
Published: (2016)
by: A. V. Dolbin, et al.
Published: (2016)
Затухание звука в сверхпроводящем аморфном сплаве ZrTiCuNiBe
by: Безуглый, E.В., et al.
Published: (1999)
by: Безуглый, E.В., et al.
Published: (1999)
Low-temperature thermal expansion of pure and inert gas-doped fullerite C₆₀
by: Aleksandrovskii, A.N., et al.
Published: (2003)
by: Aleksandrovskii, A.N., et al.
Published: (2003)
Low temperature thermal expansion of fullerite C₆₀ alloyed with argon and neon
by: Aleksandrovskii, A.N., et al.
Published: (2001)
by: Aleksandrovskii, A.N., et al.
Published: (2001)
Thermal expansion of solid solutions Kr-CH₄ at temperatures of liquid helium
by: Aleksandrovskii, A.N., et al.
Published: (2003)
by: Aleksandrovskii, A.N., et al.
Published: (2003)
Electrical and thermal conductivity of FeNi at low temperatures
by: Ja. Khadzhaj, et al.
Published: (2020)
by: Ja. Khadzhaj, et al.
Published: (2020)
The Ti–Al–Zr–Si alloys for the exploitation at high temperatures
by: S. O. Firstov, et al.
Published: (2018)
by: S. O. Firstov, et al.
Published: (2018)
Radial thermal expansion of single-walled carbon nanotube bundles at low temperatures
by: Dolbin, A.V., et al.
Published: (2008)
by: Dolbin, A.V., et al.
Published: (2008)
Kinetics of Crystallization of a Bulk-Amorphized Cu47Ni8Ti34Zr11 Alloy in Conditions of Chill Casting
by: A. B. Lysenko, et al.
Published: (2014)
by: A. B. Lysenko, et al.
Published: (2014)
Peculiarities of thermal expansion of quasi-two-dimensional organic conductor κ-(BEDT–TTF)₂Cu[N(CN)₂]Cl
by: Dolbin, A.V., et al.
Published: (2016)
by: Dolbin, A.V., et al.
Published: (2016)
A field theoretical approach to the Debye-Huckel electrolyte differential capacitance in a slab
by: di Caprio, D., et al.
Published: (2001)
by: di Caprio, D., et al.
Published: (2001)
Specific features of thermal expansion and polyamorphism in CH4–C60 solutions at low temperatures
by: Dolbin, A.V., et al.
Published: (2007)
by: Dolbin, A.V., et al.
Published: (2007)
Refinement of the ZrNi0.8P2-x crystal structure
by: O. Zhak
Published: (2017)
by: O. Zhak
Published: (2017)
Synthesis, structure and hydrogenation properties of (Ti,Zr)4Ni2Nx subnitrides
by: Yu. Zavalii, et al.
Published: (2017)
by: Yu. Zavalii, et al.
Published: (2017)
Изменение характеристик структуры быстрозакаленных лент Ti₄₁,5Zr₄₁,5Ni₁₇ и Ti₄₁,5Hf₄₁,5Ni₁₇ при радиационном воздействии
by: Ажажа, В.М., et al.
Published: (2011)
by: Ажажа, В.М., et al.
Published: (2011)
Thermal conductivity of pure and Cr³⁺ and Ti³⁺ doped Al₂O₃ crystals in 50-300 K temperature range
by: Popov, P.A., et al.
Published: (2011)
by: Popov, P.A., et al.
Published: (2011)
Thermal expansion and polyamorphism of N₂–C₆₀ solutions
by: Manzhelii, V.G., et al.
Published: (2006)
by: Manzhelii, V.G., et al.
Published: (2006)
Similar Items
-
Residual stresses in Ti₄₁¸₅Zr₄₁¸₅Ni₁₇ quasi-crystalline ribbons measured by X-ray diffraction
by: Malykhin, S.
Published: (2007) -
Electrical resistivity of Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals in the temperature region 0.3–300 K
by: Azhazha, V.M., et al.
Published: (2005) -
Structure transformations and thermal expansion in Al–Ni–Zr and Al–Ni–Hf aluminum alloys
by: S. I. Mudryi, et al.
Published: (2016) -
Stability of thin quasi-crystalline Ti-Zr-Ni films and related crystalline phases under low-energy transient plasma irradiation
by: Malykhin, S.V., et al.
Published: (2022) -
Structure and substructure variations of icosahedral Ti₄₁.₅Zr₄₁.₅Ni₁₇ quasicrystals under irradiation imitating outer space factors
by: Bazdyreva, S.V., et al.
Published: (2015)