Low Noise Amplifier for the Wearable IoT Sensing System

Dayarnab Baidya, Athul Krishnan, M. Bhattacharjee
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Abstract

Wireless systems and Internet of Things (IoT) sensing applications need Low Noise Amplifiers (LNA). However, a simple design is desirable for wearable IoT applications. In this direction, a single-stage LNA having considerable gain, stability, and noise figure (NF) for wearable IoT applications have been designed. An analysis of gain, noise factor, and stability for various values of gate voltage is performed to determine the utility and performance. The transistor used here is a Low Noise Gallium Arsenide FET and lumped components are used for matching at input and output side. It is found that the proposed LNA has 15.689 dB forward gain, a bandwidth of 1600 MHz and 0.672 dB Noise Figure at frequency 2.4 GHz that can be used for sensors operating in LS bands of frequencies. The LNA has been designed with fewer components in order to make it suitable for wearable IoT.
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用于可穿戴物联网传感系统的低噪声放大器
无线系统和物联网(IoT)传感应用需要低噪声放大器(LNA)。然而,对于可穿戴物联网应用来说,简单的设计是可取的。在这个方向上,为可穿戴物联网应用设计了具有可观增益、稳定性和噪声系数(NF)的单级LNA。对各种栅极电压值的增益、噪声因数和稳定性进行了分析,以确定其效用和性能。这里使用的晶体管是一个低噪声砷化镓场效应管,在输入端和输出端使用集总元件进行匹配。结果表明,该LNA的正向增益为15.689 dB,带宽为1600 MHz, 2.4 GHz时噪声系数为0.672 dB,可用于工作在LS频段的传感器。LNA设计了更少的组件,以使其适合可穿戴物联网。
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