Enhanced Performance Double-gate Junction-less Tunnel Field Effect Transistor for Bio-Sensing Application

Isukapalli Vishnu Vardhan Reddy , Suman Lata Tripathi
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Abstract

In this work, a double gate junction-less tunnel FET (DG-JLTFET) has been evaluated for biosensing applications. Tunnelling is the concept in JLTFET which is a heavily doped JL transistor, by decreasing the barrier length between the source and channel of the device which is easily used for switching (ON and OFF) purpose. Based on the research and simulation so far on JLTFET, this has achieved a greater performance when compared to that of MOSFET. JLTFET with more dielectric (k) and low K spacers will give an ON current (0.1 mA/µm) for gate voltage 3V and for off current of (10−15 A/ µm) and performance with Ion/Ioff ratio at 1012 and subthreshold swing with 60 mV/dec is obtained at 20 nm length of the gate at room temperature. So, JLTFET is a better device for switching performance. The evaluation of device performance is also done based on different cavity thicknesses and different dielectric constants. Including these parameters, double gate-pocket-junction-less TFET is highly used in biosensor applications. In the following, we demonstrate high performance based on pocket region which is introduced to implement in JLTFET for biosensor label-free detection

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用于生物传感的增强型双栅无结隧道场效应晶体管
在这项工作中,双栅无结隧道FET (DG-JLTFET)已被评估用于生物传感应用。隧道效应是JLTFET的概念,它是一种重掺杂JL晶体管,通过减少器件源和通道之间的势垒长度,易于用于开关(ON和OFF)目的。根据目前对JLTFET的研究和仿真,与MOSFET相比,JLTFET取得了更高的性能。具有更大介电(k)和低k间隔的JLTFET将在栅极电压3V和关断电流(10 - 15 A/µm)下提供0.1 mA/µm的导通电流,并在室温下在栅极长度20nm处获得离子/关断比为1012和亚阈值摆幅为60 mV/dec的性能。因此,JLTFET是一个更好的开关性能器件。根据不同的腔厚度和不同的介电常数对器件的性能进行了评价。包括这些参数在内,双栅无口袋结TFET在生物传感器应用中得到了广泛的应用。在下文中,我们展示了基于口袋区域的高性能,该区域被引入JLTFET中,用于生物传感器无标签检测
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