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INFLUENCE OF DEFECTS ON THE ELECTRICAL CONDUCTIVITY OF SBₓSEᵧ THIN FILMS PREPARED BY THE INDEPENDENT SOURCE VAPOR TRANSPORT TECHNIQUE

Область науки:Электротехника и электроника ​
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АННОТАЦИЯ СТАТЬИ

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In this study, the structural and electrophysical properties of SbxSey thin films grown at different source temperatures using the independent-source vapor transport method were investigated. The composition of the thin films was determined by energy-dispersive X-ray spectroscopy (EDS), revealing that as the source temperature increases, the Sb/Se atomic ratio shifts from Se-rich to Sb-rich. Specifically, a Se-rich composition (Sb/Se ≈ 0.51) was observed in films obtained at 500 °C, a stoichiometric composition (Sb/Se ≈ 0.67) at 525 °C, and an Sb-rich composition (Sb/Se ≈ 0.82) at 550 °C. The temperature dependence of electrical conductivity was measured using a cryostat, and activation energies were calculated from Arrhenius analysis. According to the results, the following activation energies were identified for the corresponding samples: Eᵥ + 0.578 eV for the 500 °C film, Eᵥ + 0.111 eV for the 525 °C film, and E꜀ − 0.518 eV for the 550 °C film.

АВТОРЫ

K.Quchqarov

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

B.Ergashev

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

M.Pirimmatov

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

A.Matmuratov

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

B.Gulumbaev

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

X.To‘liboyeva

"O‘ZBEKISTON RESPUBLIKASI FANLAR AKADEMIYASI S A AZIMOV NOMIDAGI FIZIKA-TEXNIKA INSTITUTI" DAVLAT MUASSASASI

Теги

# temperature# independent-source# vapor# transport# deposition# sb₂se₃# thin-film# solar# cells# substrate# preparation# source# effect# point# defects# electrical# conductivity# activation# energy# photovoltaic# absorber# materials

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