2017•Frontiers of Information Technology & Electronic EngineeringRequires access

A fractional-order multifunctional n-step honeycomb RLC circuit network

Zhou Ling, Zhi‐Zhong Tan, Qinghua Zhang

Open publisher page 31 citations

Abstract

We investigate a multifunctional n -step honeycomb network which has not been studied before. By adjusting the circuit parameters, such a network can be transformed into several different networks with a variety of functions, such as a regular ladder network and a triangular network. We derive two new formulae for equivalent resistance in the resistor network and equivalent impedance in the LC network, which are in the fractional-order domain. First, we simplify the complex network into a simple equivalent model. Second, using Kirchhoff’s laws, we establish a fractional difference equation. Third, we construct an equivalent transformation method to obtain a general solution for the nonlinear differential equation. In practical applications, several interesting special results are obtained. In particular, an n -step impedance LC network is discussed and many new characteristics of complex impedance have been found.

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What this paper is about

We investigate a multifunctional n -step honeycomb network which has not been studied before. By adjusting the circuit parameters, such a network can be transformed into several different networks with a variety of functions, such as a regular ladder network and a triangular network. We derive two new formulae for equivalent resistance in the resistor network and equivalent impedance in the LC network, which are in the fractional-order domain. First, we simplify the complex network into a simple equivalent model. Second, using Kirchhoff’s laws, we establish a fractional difference equation. Third, we construct an equivalent transformation method to obtain a general solution for the nonlinear differential equation. In practical applications, several interesting special results are obtained. In particular, an n -step impedance LC network is discussed and many new characteristics of complex impedance have been found.

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Available abstract

We investigate a multifunctional n -step honeycomb network which has not been studied before. By adjusting the circuit parameters, such a network can be transformed into several different networks with a variety of functions, such as a regular ladder network and a triangular network. We derive two new formulae for equivalent resistance in the resistor network and equivalent impedance in the LC network, which are in the fractional-order domain. First, we simplify the complex network into a simple equivalent model. Second, using Kirchhoff’s laws, we establish a fractional difference equation. Third, we construct an equivalent transformation method to obtain a general solution for the nonlinear differential equation. In practical applications, several interesting special results are obtained. In particular, an n -step impedance LC network is discussed and many new characteristics of complex impedance have been found.

Key concepts: Equivalent circuit, Network analysis, Electrical impedance, Mathematics, RLC circuit, Transformation (genetics), Resistor, Nonlinear system

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