Ultrasonic exploration of vacancy centres with the Jahn-Teller effect. Application to the ZnSe crystal

We show that the structure, properties, and concentration of vacancies in crystals can be studied by ultrasonic experiments previously employed for impurity centres only. Measurements of the temperature dependence of attenuation and phase velocities of ultrasonic shear waves of 52 MHz propagating al...

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Published inPhysica Status Solidi. B: Basic Solid State Physics Vol. 251; no. 8; pp. 1590 - 1595
Main Authors Averkiev, N. S., Bersuker, I. B., Gudkov, V. V., Baryshnikov, K. A., Colibaba, G. V., Zhevstovskikh, I. V., Mayakin, V. Yu, Monakhov, A. M., Nedeoglo, D. D., Sarychev, M. N., Surikov, V. T.
Format Journal Article
LanguageEnglish
Published Blackwell Publishing Ltd 01.08.2014
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ISSN0370-1972
1521-3951
DOI10.1002/pssb.201451092

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Abstract We show that the structure, properties, and concentration of vacancies in crystals can be studied by ultrasonic experiments previously employed for impurity centres only. Measurements of the temperature dependence of attenuation and phase velocities of ultrasonic shear waves of 52 MHz propagating along the crystallographic axis [110] of nominally pure ZnSe single crystals (grown by the seeded physical vapour transport method) show strong anomalies which are typical for relaxation processes in system with isolated Jahn–Teller (JT) centres. The observed JT distortion mode is trigonal, subject to a threefold orbitally degenerate T‐term interaction with trigonal and tetragonal nuclear displacements. In the absence of sufficiently high concentrations of impurity atoms with such properties we attributed the observed JT centres to zinc vacancies. The temperature dependence of the isothermal and adiabatic forms of the appropriate elastic modulus and the relaxation time show that the relaxation mechanism changes from thermal activation at higher temperatures to tunnelling through a potential energy barrier below 18 K. We provide an estimate of the magnitude of the potential barrier, as well as the pseudorotation frequency and concentration of vacancies. Also we determine the extremum points of the adiabatic potential energy surface of the vacancy centre.
AbstractList We show that the structure, properties, and concentration of vacancies in crystals can be studied by ultrasonic experiments previously employed for impurity centres only. Measurements of the temperature dependence of attenuation and phase velocities of ultrasonic shear waves of 52MHz propagating along the crystallographic axis [110] of nominally pure ZnSe single crystals (grown by the seeded physical vapour transport method) show strong anomalies which are typical for relaxation processes in system with isolated Jahn-Teller (JT) centres. The observed JT distortion mode is trigonal, subject to a threefold orbitally degenerate T-term interaction with trigonal and tetragonal nuclear displacements. In the absence of sufficiently high concentrations of impurity atoms with such properties we attributed the observed JT centres to zinc vacancies. The temperature dependence of the isothermal and adiabatic forms of the appropriate elastic modulus and the relaxation time show that the relaxation mechanism changes from thermal activation at higher temperatures to tunnelling through a potential energy barrier below 18K. We provide an estimate of the magnitude of the potential barrier, as well as the pseudorotation frequency and concentration of vacancies. Also we determine the extremum points of the adiabatic potential energy surface of the vacancy centre.
We show that the structure, properties, and concentration of vacancies in crystals can be studied by ultrasonic experiments previously employed for impurity centres only. Measurements of the temperature dependence of attenuation and phase velocities of ultrasonic shear waves of 52 MHz propagating along the crystallographic axis [110] of nominally pure ZnSe single crystals (grown by the seeded physical vapour transport method) show strong anomalies which are typical for relaxation processes in system with isolated Jahn–Teller (JT) centres. The observed JT distortion mode is trigonal, subject to a threefold orbitally degenerate T‐term interaction with trigonal and tetragonal nuclear displacements. In the absence of sufficiently high concentrations of impurity atoms with such properties we attributed the observed JT centres to zinc vacancies. The temperature dependence of the isothermal and adiabatic forms of the appropriate elastic modulus and the relaxation time show that the relaxation mechanism changes from thermal activation at higher temperatures to tunnelling through a potential energy barrier below 18 K. We provide an estimate of the magnitude of the potential barrier, as well as the pseudorotation frequency and concentration of vacancies. Also we determine the extremum points of the adiabatic potential energy surface of the vacancy centre.
Author Bersuker, I. B.
Zhevstovskikh, I. V.
Mayakin, V. Yu
Gudkov, V. V.
Baryshnikov, K. A.
Monakhov, A. M.
Averkiev, N. S.
Colibaba, G. V.
Nedeoglo, D. D.
Sarychev, M. N.
Surikov, V. T.
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References_xml – reference: G. D. Watkins and J. R. Troxell, Phys. Rev. Lett. 44, 593 (1980).
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Snippet We show that the structure, properties, and concentration of vacancies in crystals can be studied by ultrasonic experiments previously employed for impurity...
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SubjectTerms Adiabatic flow
elastic moduli
Impurities
Jahn-Teller effect
Potential energy
Relaxation
Relaxation time
Temperature dependence
ultrasound
Vacancies
Zinc
Zinc selenides
ZnSe
Title Ultrasonic exploration of vacancy centres with the Jahn-Teller effect. Application to the ZnSe crystal
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