Investigation of CMOS Based Integration Approach Using DAI Technique for Next Generation Wireless Networks
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Date
2019
Journal Title
Journal ISSN
Volume Title
Publisher
Springer New York LLC barbara.b.bertram@gsk.com
Abstract
This research work investigates a CMOS based low noise amplifier (LNA) using differential active inductor with eight-shaped patch antenna for next generation wireless communication. The proposed work conceded into three different phases. The first phase proposes LNA architecture which includes multistage cascode amplifier with a gate inductor gain peaking technique. The ground approach for this architecture employs active inductor technique that includes two stages of differential amplifier. The proposed novel technique leads to give incremental in inductance by using of common mode feedback resistor and lowers the undesirable parasitic resistance effect. Additionally, this technique offers gain enhanced noise cancellation and achieves a frequency band of around 5.7 GHz. The proposed architecture includes single stage differential AI and enhances the bandwidth up to 6.8 GHz with peak gain of 21 dB at 7.8 GHz. The noise figure and stability factor are achieved which is reasonably good at 1 dB. The proposed architecture is design and optimized on advanced design RF simulator using 0.045 µm CMOS process technology. While in second phase, a narrow band eight-shaped patch antenna is designed which provides operating band range from 5.8 to 6.5 GHz with 6.2 GHz resonating frequency. Highest peak gain of 15 dB and maximum radiation power of 42.5 dBm is succeed by proposed antenna. The final phase provides integration strategy of LNA with antenna and achieves desired gain of nearly 21 dB with minimum NF of 1.2–1.5 dB in the same band. © 2018, Springer Science+Business Media, LLC, part of Springer Nature.
Description
Keywords
Architecture, Cascode amplifiers, CMOS integrated circuits, Differential amplifiers, Electric inductors, Heterojunction bipolar transistors, Integrated circuit design, Metals, Microstrip antennas, Microwave antennas, MOS devices, Network architecture, Next generation networks, Noise figure, Oxide semiconductors, Slot antennas, Wireless networks, Wireless telecommunication systems, CMOS process technology, Complementary metal oxide semiconductors, Differential active inductors, Integration strategy, Next-generation wireless communications, Next-generation wireless network, Parasitic resistances, Proposed architectures, Low noise amplifiers
Citation
Wireless Personal Communications, 2019, 104, 3, pp. 1091-1107
