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QUANTUM DEVICES WITH MULTIPOLE-ELECTRODE - HETEROJUNCTIONS HYBRID STRUCTURES

机译:具有多极电极的量子设备-异质结混合结构

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摘要

Since the introduction of the man-made superlattices and quantum well structures, the field has taken off and developed into Quantum Slab, QS; Quantum Wire, QW; Quantum Dot, QD; and Nanoelectronics. This rapidly expanding field owes its success to the development of epitaxially grown heterojunctions and heterostructures to confine carriers in injection lasers. Meanwhile, the advancement of lithography allows potentials to be applied in nanoscale dimension leading to the possibility of quantum confinement without heterostructures. Actually, quantum states in the inversion layer of field effect transistors, FETs, formed by the application of a large gate voltage appeared several years before the introduction of the superlattices and quantum wells. The quantum Hall effect was first discovered in the Si inversion layer. This chapter, Multipole-Electrode Heterojunction Hybrid Structure, MEHHS, discusses hybrid structures of heterojunctions and applied potentials via multipole-electrodes for a much wider variety of structures for future quantum devices. The technology required to fabricate these electrodes, to some degree, is routinely used in the double-gate devices. Few specific examples are detailed here, hopefully, to stimulate a rapid adoption of a hybrid system for the formation of quasi-discrete states for quantum devices.
机译:自从引入人造超晶格和量子阱结构以来,该领域便迅速发展起来,并发展成为量子平板(QS)。量子线,QW; QD量子点;和纳米电子学。这一迅速扩展的领域归功于外延生长的异质结和异质结构的发展,以将载流子限制在注入激光器中。同时,光刻技术的发展允许将电势应用于纳米尺度,从而导致没有异质结构的量子限制的可能性。实际上,在引入超晶格和量子阱之前的几年,通过施加大的栅极电压而形成的场效应晶体管FET的反型层中的量子态就出现了。量子霍尔效应首先在Si反型层中发现。本章“多极-电极异质结混合结构” MEHHS讨论了异质结和通过多极电极施加的电势的杂化结构,为未来的量子器件提供了更多种类的结构。在某种程度上,双栅器件通常使用制造这些电极所需的技术。希望在这里详细说明几个具体的例子,以刺激迅速采用混合系统来形成量子器件的准离散状态。

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