Simulation and Characterization of an Inverter Logic Gate by Utilizing InGaAs-Based Planar Devices

Authors

  • F. Aziz
  • S. R. Kasjoo
  • N. F. Zakaria
  • Fauzi Packeer
  • A. K. Singh

DOI:

https://doi.org/10.58915/ijneam.v16iDECEMBER.387

Abstract

Electronic circuits known as logic gates can perform basic logical operations like inverters, AND, and OR gates. These logic gates serve as the basis for digital electronics, and they are a common component in various electronic devices, such as computers, smartphones, and other types of digital systems. This research presents an inverter logic gate made of planar devices, which have significantly simpler structures than multi-layered transistors and diodes, namely the self-switching diode (SSD) and side-gated transistor (SGT). The inverter logic gate is realized by simply connecting both SSD and SGT in parallel. The electrical characteristics and performances of the inverter logic gate are assessed based on InGaAs material using SILVACO Inc.'s ATLAS device simulator software. The simulation results show that the functionality of the proposed planar inverter is comparable to that of a conventional inverter logic gate based on the standard truth table of the device. This has demonstrated the feasibility of building logic gates using a combination of SSDs and SGTs. In addition, the planar structure of SSD and SGT allows for a relatively low-cost device fabrication process as well as offering a high-frequency operation due to low parasitic elements in the devices.

Keywords:

Inverter, self-switching diode, side-gated transistor

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Published

26-12-2023

How to Cite

[1]
F. Aziz, S. R. Kasjoo, N. F. Zakaria, Fauzi Packeer, and A. K. Singh, “Simulation and Characterization of an Inverter Logic Gate by Utilizing InGaAs-Based Planar Devices”, IJNeaM, vol. 16, no. December, pp. 65–71, Dec. 2023.