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A First Principle Approach to Investigate Electrical doping-Dependent Conductance Changes in Adenine-Thymine Hetero-structure Chain using GaAs Nanotube

机译:使用GaAs纳米管研究腺嘌呤-胸腺嘧啶异质结构链中电掺杂依赖性电导率变化的第一原理方法

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In this paper, we investigate the electrical doping dependent conductivity changes in Adenine and Thymine bio-molecular chain using Density functional Theory and Non-Equilibrium Green’s Function based first principle approach. The bio-molecular chain has been passed through GaAs multi walled nanotube electrodes. It has been identified that increasing electrical doping concentration increase the conductivity through the heterostructure bio-molecular chain. It is also found that the quantum transmission through this bio-molecular chain is also electrical doping dependent. The calculated Current-Voltage characteristics strongly induced due to the doping concentration that is applied at the two ends of the multi walled GaAs nanotube. It has been identified that a small increment in electrical doping leads to change a huge amount of current transmission through the Adenine-Thymine heterogeneous chain.
机译:在本文中,我们使用基于密度泛函理论和非平衡格林函数的第一性原理方法研究了腺嘌呤和胸腺嘧啶生物分子链中电掺杂依赖性的电导率变化。生物分子链已通过GaAs多壁纳米管电极。已经发现,增加电掺杂浓度会增加通过异质结构生物分子链的电导率。还发现通过该生物分子链的量子传输也是电掺杂依赖性的。由于在多壁GaAs纳米管的两端施加了掺杂浓度,因此强烈诱导了计算出的电流-电压特性。已经发现,电掺杂的少量增加导致改变了通过腺嘌呤-胸腺嘧啶异质链的大量电流传输。

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