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Ain Shams Engineering Journal· 2026Q1

Hybrid Satin Bowerbird–Egret Swarm optimization driven iterative temporal CNN for high-accuracy analog circuit fault diagnosis

G. Puvaneswari, A. Ahilan, R. Sundar, C. Anuradha

Short summary

A novel hybrid deep learning framework (SbEO-ITCNN) achieves high accuracy (up to 99.62%) in analog circuit fault diagnosis by combining Wrapped Discrete Wavelet Transform feature extraction with an Iterative Temporal Convolutional Neural Network optimized by a hybrid Satin Bowerbird and Egret Swarm algorithm.

AI-generated from the title and abstract; the full text is not read.

Key points

  • A hybrid deep learning framework (SbEO-ITCNN) is proposed for analog circuit fault diagnosis.
  • Wrapped Discrete Wavelet Transform is used for multi-resolution feature extraction.
  • An Iterative Temporal Convolutional Neural Network (ITCNN) enhances temporal feature learning.
  • A hybrid Satin Bowerbird Optimization (SBO) and Egret Swarm Optimization (ESO) algorithm tunes ITCNN hyperparameters.
  • Experimental results show high classification accuracies (up to 99.62%) on tested analog circuits.

AI-generated from the title and abstract; the full text is not read.

Abstract

Diagnosing analog circuit faults is essential to maintaining the stability and dependability of contemporary electronic systems. This paper proposes a novel hybrid deep learning framework, termed SbEO-ITCNN, which integrates Satin Bowerbird Optimization (SBO) and Egret Swarm Optimization (ESO) for efficient hyperparameter tuning of an Iterative Temporal Convolutional Neural Network (ITCNN). Initially, Wrapped Discrete Wavelet Transform (W-DWT) is employed to extract multi-resolution time–frequency features, effectively reducing noise and feature redundancy. The extracted features are then classified using ITCNN, which enhances temporal feature learning and improves classification performance. To further optimize the model, the proposed SbEO algorithm balances exploration and exploitation for robust parameter tuning. The proposed method is validated on multiple analog circuits, including Sallen–Key band-pass, Leapfrog, Butterworth low-pass, and Biquad high-pass filters. Experimental results demonstrate superior performance, achieving classification accuracies of 99.62 %, 99.21 %, 99.41 %, and 99.36 %, respectively, along with reduced computational time compared to existing techniques.

The authors' abstract, as published at the source. Ain Shams Engineering Journal, 2026 · DOI ↗

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Field: Hardware and Architecture

Hardware and ArchitectureComputer Science