Interplay among Bilayer pseudoSpin field-effect transistor (BiSFET) performance, BiSFET scaling and condensate strength

X. Mou, L. Register, S. Banerjee
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引用次数: 4

Abstract

It has been proposed that superfluid excitonic condensates may be possible in dielectrically separated graphene layers or other two-dimensional materials. This possibility was the basis for the proposed ultra-low power Bilayer pseudoSpin Field-effect Transistor (BiSFET). Previously, we developed an atomistic tight-binding quantum transport simulator, including the non-local exchange interaction, and used it to demonstrate the essential excitonic superfluid transport physics which underlies the proposed BiSFET in presence of such a condensate. Here we report on extension of that work to analyze dependencies on device scaling and the condensate strength of BiSFET performance and required device parameters including interlayer conductance, and critical current and voltage.
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双层伪自旋场效应晶体管(BiSFET)性能、BiSFET缩放和冷凝强度之间的相互作用
有人提出,在介电分离的石墨烯层或其他二维材料中可能存在超流体激子凝聚。这种可能性是提出的超低功率双层伪自旋场效应晶体管(BiSFET)的基础。之前,我们开发了一个原子紧密结合量子输运模拟器,包括非局部交换相互作用,并使用它来演示基本的激子超流体输运物理,这是在这种凝聚态存在下提出的BiSFET的基础。在这里,我们报告了该工作的扩展,以分析器件缩放和BiSFET性能的冷凝强度的依赖关系,以及所需的器件参数,包括层间电导,临界电流和电压。
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