Neural network method for lossless two-conductor transmission line equations based on the IELM algorithm

• Published in: AIP advances Vol. 8; no. 6; pp. 065010 - 065010-14
• Main Authors: Yang, Yunlei, Hou, Muzhou, Luo, Jianshu, Liu, Taohua
• Format: Journal Article
• Language: English
• Published: Melville American Institute of Physics 01.06.2018; AIP Publishing LLC
• Subjects: Algorithms; Basis functions; Conductors; Digital systems; Electric potential; High speed; Iterative methods; Machine learning; Mathematical models; Neural networks; Orthogonality; Signal transmission; Transmission lines; Weight
• DOI: 10.1063/1.5025504
• ISSN: 2158-3226

With the increasing demands for vast amounts of data and high-speed signal transmission, the use of multi-conductor transmission lines is becoming more common. The impact of transmission lines on signal transmission is thus a key issue affecting the performance of high-speed digital systems. To solve the problem of lossless two-conductor transmission line equations (LTTLEs), a neural network model and algorithm are explored in this paper. By selecting the product of two triangular basis functions as the activation function of hidden layer neurons, we can guarantee the separation of time, space, and phase orthogonality. By adding the initial condition to the neural network, an improved extreme learning machine (IELM) algorithm for solving the network weight is obtained. This is different to the traditional method for converting the initial condition into the iterative constraint condition. Calculation software for solving the LTTLEs based on the IELM algorithm is developed. Numerical experiments show that the results are consistent with those of the traditional method. The proposed neural network algorithm can find the terminal voltage of the transmission line and also the voltage of any observation point. It is possible to calculate the value at any given point by using the neural network model to solve the transmission line equation.