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Электронный каталог: Samadov, S. F. - Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Us...
Samadov, S. F. - Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Us...

Статья
Автор: Samadov, S. F.
Arabian Journal for Science and Engineering: Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Us...
б.г.
ISBN отсутствует
Автор: Samadov, S. F.
Arabian Journal for Science and Engineering: Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Us...
б.г.
ISBN отсутствует
Статья
Samadov, S.F.
Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Using Positron Annihilation Spectroscopy / S.F.Samadov, A.A.Sidorin, N.V.M.Trung, O.S.Orlov, [a.o.]. – Text : electronic // Arabian Journal for Science and Engineering. – 2026. – Vol. 51, No. 2. – P. 2137-2147. – URL: https://doi.org/10.1007/s13369-025-10262-2. – Bibliogr.: 69.
We have been studying the structural and defect properties of Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) chalcogenide semiconductors synthesized by the Bridgman–Stockbarger method using positron annihilation lifetime spectroscopy (PALS) and Doppler broadening annihilation spectroscopy (DBAS). These methods let us study defect configurations in great detail. These configurations include vacancies, clusters, and interstitials, which are affected by atomic radii and bonding properties. PALS measurements show variations in defect types and concentrations among the samples. This helps us identify three distinct lifetime components (τ1, τ2, τ3) and their corresponding intensities. We found that Cu₂NiTe₂ had the highest τ₂ (288 ps) and pore volume (0.056 nm3). DBAS measurements showed that the Cu₂NiTe₂ compound had the highest defect concentration. DBAS gave us some great insights into the electron momentum distribution and showed us the role of chalcogen substitution in defect evolution. All of these findings show how well Cu&sub(2)NiX materials can be used to optimize their structural properties for optoelectronic and energy applications.
Спец.(статьи,препринты) = С 350 - Приложения методов ядерной физики в смежных областях
Спец.(статьи,препринты) = С 36 - Физика твердого тела$
Samadov, S.F.
Defect Characterization in Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) Chalcogenide Semiconductors Using Positron Annihilation Spectroscopy / S.F.Samadov, A.A.Sidorin, N.V.M.Trung, O.S.Orlov, [a.o.]. – Text : electronic // Arabian Journal for Science and Engineering. – 2026. – Vol. 51, No. 2. – P. 2137-2147. – URL: https://doi.org/10.1007/s13369-025-10262-2. – Bibliogr.: 69.
We have been studying the structural and defect properties of Cu&sub(2)NiX (X = SSe, Te&sub(2), SeTe) chalcogenide semiconductors synthesized by the Bridgman–Stockbarger method using positron annihilation lifetime spectroscopy (PALS) and Doppler broadening annihilation spectroscopy (DBAS). These methods let us study defect configurations in great detail. These configurations include vacancies, clusters, and interstitials, which are affected by atomic radii and bonding properties. PALS measurements show variations in defect types and concentrations among the samples. This helps us identify three distinct lifetime components (τ1, τ2, τ3) and their corresponding intensities. We found that Cu₂NiTe₂ had the highest τ₂ (288 ps) and pore volume (0.056 nm3). DBAS measurements showed that the Cu₂NiTe₂ compound had the highest defect concentration. DBAS gave us some great insights into the electron momentum distribution and showed us the role of chalcogen substitution in defect evolution. All of these findings show how well Cu&sub(2)NiX materials can be used to optimize their structural properties for optoelectronic and energy applications.
Спец.(статьи,препринты) = С 350 - Приложения методов ядерной физики в смежных областях
Спец.(статьи,препринты) = С 36 - Физика твердого тела$
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