The vertical strained impact ionization MOSFET (VESIMOS) for ultra-sensitive biosensor application

I. Saad, B. Hazwani, H. M. Zuhir, C. B. Seng, N. Bolong
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引用次数: 1

Abstract

This paper venture into prospective ideas of finding the best feasible candidates for future bio-based sensor by exploring an emerging device structure with elevated performance and reliable outcomes of vertical strained impact ionization MOSFET (VESIMOS) with dual strained SiGe and dielectric pocket (DP) technology. An overview of the simulated fabrication process and the performance of the three promising candidates for succession of the conventional vertical Impact Ionization MOSFET (IMOS): Single Channel vertical strained impact ionization MOSFET (SC-VESIMOS) [13], Dual Channel vertical strained impact ionization MOSFET (DC-VESIMOS) [14] and vertical strained impact ionization MOSFET incorporating Dielectric Pocket (VESIMOS-DP) is investigated using Silvaco package. These three devices offer possibilities to overcome physical limits occurring during the continuous shrinking process like the limitation of the subthreshold swing S to 60 mV/dec at room temperature or rising leakage currents due to tunneling. The performance of these novel devices can be extremely promising for applications where ultra-high sensitivity and fast response is desirable. An ultra-low power with low Subthreshold Swing and high breakdown voltage are imperative for ultra-sensitive biosensor. Eventually, these devices will prolong the increase density of transistor on a chip for future application of biosensor nanoelectronics.
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用于超灵敏生物传感器的垂直应变冲击电离MOSFET (VESIMOS)
本文通过探索具有双应变SiGe和介电袋(DP)技术的垂直应变冲击电离MOSFET (VESIMOS)的性能提高和可靠结果的新兴器件结构,探索了寻找未来生物基传感器最佳可行候选器件的前瞻性想法。概述了传统垂直冲击电离MOSFET (IMOS)的三个有前途的候选产品的模拟制造过程和性能:单通道垂直应变冲击电离MOSFET (SC-VESIMOS)[13],双通道垂直应变冲击电离MOSFET (DC-VESIMOS)[14]和垂直应变冲击电离MOSFET合并介电袋(VESIMOS-DP)使用Silvaco封装进行了研究。这三种器件提供了克服连续收缩过程中出现的物理限制的可能性,例如室温下亚阈值摆幅S限制为60 mV/dec或由于隧道效应而导致的泄漏电流上升。这些新型器件的性能对于需要超高灵敏度和快速响应的应用非常有希望。超低功耗、低亚阈值摆幅和高击穿电压是超灵敏生物传感器的必要条件。最终,这些装置将延长晶片上晶体管密度的增加,为未来生物感应器奈米电子学的应用奠定基础。
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