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首页> 外文期刊>Journal of Nanosciences: Current Research >The Modification of Einstein’s DMR Relation in Quantum Wire Super Lattices (QWSL) and Study of Shubnikov De Hass Effect in Parabolic Semiconductors: Simplified Theory and Suggestions for Further Experimental Determination in Biomaterials
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The Modification of Einstein’s DMR Relation in Quantum Wire Super Lattices (QWSL) and Study of Shubnikov De Hass Effect in Parabolic Semiconductors: Simplified Theory and Suggestions for Further Experimental Determination in Biomaterials

机译:抛物线半导体中量子丝超格(QWSL)对量子丝超格(QWSL)的研究及研究生物材料进一步实验测定的简化理论与建议

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The semiconductor super lattices (SLS) and nano wires have found wide applications in many electronic device structures and bio devices such as photo detectors, light emitters, avalanche photo diodes, compensatory transistors, tunneling devices, genetic diodes etc. The most extensively studied SL is the one consisting of alternate layers of GaAs and Ga1-xAlxAs, owing to its fabrication. The GaAs layers form the quantum wells, quantum dots, quantum wires and the Ga1-xAlxAs layers form the potential barriers. We wish to note that, the afore mentioned SLS have been proposed with the assumption that the interfaces between the layers are sharply defined with zero thicknesses so as to be devoid of any interface effects. As the potential form changes from a well (barrier) to a barrier (well), an intermediate potential region exists for the electrons. Thus the influence of the finite thickness of the interface on the carrier dispersion law becomes very important since, the carrier energy spectrum governs all the transport properties. In this paper, we shall investigate the DMR for the most interesting case which occurs in QWSLs of graded interfaces and compare the same with that of the constituent materials by formulating the respective one dimensional electron dispersion laws. The above mentioned inversion layer (ILs) also produces the well-studied Shubnikov de has effect in different nano structured materials and have been found wide applications in the molecular and cell biology.
机译:半导体超格子(SLS)和纳米线在许多电子设备结构和生物设备中发现了广泛的应用,例如照片探测器,光发射器,雪崩照片二极管,补偿晶体管,隧道装置,遗传二极管等。最广泛的研究是由于其制造,由GaAs和Ga1-Xalxas的替代层组成的一个。 GaAs层形成量子阱,量子点,量子线,Ga1-Xalxas层形成潜在的屏障。我们希望注意,已经提出了最后提到的SLS,假设层之间的接口被零厚度急定地定义,以便没有任何接口效应。随着潜在形式从井(屏障)变为屏障(井)的变化,电子潜在区域存在于电子。因此,由于载波能谱控制所有传输性能,因此界面对载波分散法的有限厚度的影响变得非常重要。在本文中,我们将研究DMR,以获得最有趣的壳体,该壳体发生在梯度接口的QWSL中,并通过制定各自的一维电子分散法将其与组成材料的相同。上述反转层(ILS)也产生了良好的Shubnikov DE在不同的纳米结构材料中具有效果,并且已在分子和细胞生物学中发现广泛的应用。

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