A Neural Network Approach to Transistor Circuit Design

Article ID

F57CS

A Neural Network Approach to Transistor Circuit Design

Thomas L. Hemminger
Thomas L. Hemminger Penn State University
DOI

Abstract

Transistor amplifier design is an important and fundamental concept in electronics, typically encountered by students at the junior level in electrical engineering. This paper focuses on two configurations that employ neural networks to design bipolar junction transistor circuits. The purpose of this work is to determine which design best fits the required parameters. Engineers often need to develop transistor circuits using a particular topology, e.g., common emitter, common collector, or common base. These also include a set of parameters including voltage gain, input impedance, and output impedance. For the most part, there are several methodologies that can provide a suitable solution, however the objective of this work is to indicate which external resistors are necessary to yield useful designs by employing neural networks. Here, a neural network has been trained to supply these component values for a particular configuration based on the aforementioned parameters. This should save a significant amount of work when evaluating a particular topology. And it should also permit experimentation with several designs, without having to perform detailed calculations.

A Neural Network Approach to Transistor Circuit Design

Transistor amplifier design is an important and fundamental concept in electronics, typically encountered by students at the junior level in electrical engineering. This paper focuses on two configurations that employ neural networks to design bipolar junction transistor circuits. The purpose of this work is to determine which design best fits the required parameters. Engineers often need to develop transistor circuits using a particular topology, e.g., common emitter, common collector, or common base. These also include a set of parameters including voltage gain, input impedance, and output impedance. For the most part, there are several methodologies that can provide a suitable solution, however the objective of this work is to indicate which external resistors are necessary to yield useful designs by employing neural networks. Here, a neural network has been trained to supply these component values for a particular configuration based on the aforementioned parameters. This should save a significant amount of work when evaluating a particular topology. And it should also permit experimentation with several designs, without having to perform detailed calculations.

Thomas L. Hemminger
Thomas L. Hemminger Penn State University

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Thomas L. Hemminger. 2016. “. Global Journal of Computer Science and Technology – D: Neural & AI GJCST-D Volume 16 (GJCST Volume 16 Issue D1): .

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Journal Specifications

Crossref Journal DOI 10.17406/gjcst

Print ISSN 0975-4350

e-ISSN 0975-4172

Issue Cover
GJCST Volume 16 Issue D1
Pg. 15- 20
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GJCST-D Classification: C.2.1
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A Neural Network Approach to Transistor Circuit Design

Thomas L. Hemminger
Thomas L. Hemminger Penn State University

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