First principles study structural and magnetic properties of Mn doped MgO

IF 1 4区 材料科学
Y. Benkrima, A. Souigat, M. E. Soudani, Z. Korichi, H. Bouguettaia
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引用次数: 0

Abstract

The structure, electronic and magnetic properties of the MgO bulk of (1x2x2) and (1x1x1) atoms for the B4 wurtzite phase, doped by Manganese Mn have been studied. Accordingly, the Mn atom location in the far and near spots was taken into account, as well as recognizing the magnetic interaction between both spots. Such initiative was provided thanks to the use of the density function theorem (DFT). As for the energy gap of the semiconductor MgO, it was calculated by the linearly increasing planar method, and by the local density approximation (LDA), not to mention the generalized gradient approximation (CGA).It is found that the calculated results agree well with other theoretical and experimental findings. Whereas, the energy gap and the total magnetic torque have been recorded for the Mn doped MgO in the (1x2x2) super Celle. Therefore, our given results have shown that the use of the classification-generalized approximation could enable us to provide more precise results of the d orbital composites, and they also added new properties to the new compound.
第一性原理研究Mn掺杂MgO的结构和磁性能
研究了锰锰掺杂B4纤锌矿相MgO(1x2x2)和(1x1x1)原子体的结构、电子和磁性。因此,考虑了Mn原子在远点和近点中的位置,以及识别两个点之间的磁相互作用。由于密度函数定理(DFT)的使用,提供了这种主动性。至于半导体MgO的能隙,它是通过线性增加平面法和局部密度近似(LDA)计算的,更不用说广义梯度近似(CGA)了。计算结果与其他理论和实验结果吻合良好。然而,在(1x2x2)超晶格中,已经记录了Mn掺杂的MgO的能隙和总磁矩。因此,我们给出的结果表明,使用分类广义近似可以使我们能够提供d轨道复合物的更精确的结果,并且它们还为新化合物添加了新的性质。
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来源期刊
Journal of Ovonic Research
Journal of Ovonic Research Materials Science-Electronic, Optical and Magnetic Materials
CiteScore
1.60
自引率
20.00%
发文量
77
期刊介绍: Journal of Ovonic Research (JOR) appears with six issues per year and is open to the reviews, papers, short communications and breakings news inserted as Short Notes, in the field of ovonic (mainly chalcogenide) materials for memories, smart materials based on ovonic materials (combinations of various elements including chalcogenides), materials with nano-structures based on various alloys, as well as semiconducting materials and alloys based on amorphous silicon, germanium, carbon in their various nanostructured forms, either simple or doped/alloyed with hydrogen, fluorine, chlorine and other elements of high interest for applications in electronics and optoelectronics. Papers on minerals with possible applications in electronics and optoelectronics are encouraged.
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