Theoretical and Experimental Study of the Electronic and Optical Properties of ZnIn2Se4 Crystals

IF 1.1 4区 物理与天体物理 Q3 PHYSICS, MULTIDISCIPLINARY Physics of Wave Phenomena Pub Date : 2024-04-27 DOI:10.3103/S1541308X24700092
I. A. Mamedova, Z. A. Jahangirli, E. G. Alizade, R. G. Seyidov, T. G. Mammadov, N. A. Abdullayev
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Abstract

The electronic properties of ZnIn2Se4 crystals have been studied experimentally by spectral ellipsometry and theoretically (from the first principles) using the density functional theory (DFT). Ellipsometric studies in the energy range of 0.7–6.5 eV made it possible to determine the imaginary and real parts of the dielectric function and optical conductivity, as well as the dispersion of the refractive indices, extinction coefficients, and absorption coefficients, and to estimate the values of the Urbach energy, plasma frequency, and nonlinear optical characteristics of ZnIn2Se4 crystals. The electronic band structure, origin of energy states, optical functions for incident light polarized along the crystal optic axis and perpendicular to it, and partial densities of states projected onto atoms are determined by ab initio calculations. The theoretical results are compared with the experimental data obtained by spectral ellipsometry.

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ZnIn2Se4 晶体电子和光学特性的理论与实验研究
摘要 通过光谱椭偏仪对 ZnIn2Se4 晶体的电子特性进行了实验研究,并利用密度泛函理论(DFT)对其进行了理论研究(从第一原理出发)。在 0.7-6.5 eV 的能量范围内进行的椭偏仪研究使我们有可能确定介电函数和光导率的虚部和实部,以及折射率、消光系数和吸收系数的色散,并估算出 ZnIn2Se4 晶体的厄巴赫能量值、等离子体频率和非线性光学特性。通过 ab initio 计算确定了电子能带结构、能态起源、沿晶体光轴偏振和垂直于晶体光轴偏振入射光的光学函数,以及投射到原子上的部分态密度。理论结果与光谱椭偏仪获得的实验数据进行了比较。
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来源期刊
Physics of Wave Phenomena
Physics of Wave Phenomena PHYSICS, MULTIDISCIPLINARY-
CiteScore
2.50
自引率
21.40%
发文量
43
审稿时长
>12 weeks
期刊介绍: Physics of Wave Phenomena publishes original contributions in general and nonlinear wave theory, original experimental results in optics, acoustics and radiophysics. The fields of physics represented in this journal include nonlinear optics, acoustics, and radiophysics; nonlinear effects of any nature including nonlinear dynamics and chaos; phase transitions including light- and sound-induced; laser physics; optical and other spectroscopies; new instruments, methods, and measurements of wave and oscillatory processes; remote sensing of waves in natural media; wave interactions in biophysics, econophysics and other cross-disciplinary areas.
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