ResSeMo: deep convolutional neural network integration for high-accuracy waste classification and efficient processing

As urban waste issues become increasingly severe, traditional waste classification methods can no longer meet the demands for efficiency and accuracy. Deep learning technology has gradually become a key solution to this problem, yet improving classification accuracy, processing efficiency, and model adaptability in complex scenarios remains a challenge. This paper proposes a lightweight waste classification model, ResSeMo, based on multi-module collaborative optimization. The model combines ResNeXt's multi-scale feature extraction, SENet's channel attention mechanism, and MobileNetV3's lightweight design to effectively improve classification accuracy, reduce computational overhead, and enhance robustness in complex backgrounds. Experimental results show that ResSeMo achieved 91.3% accuracy on the TrashNet dataset and 86.9% on the TACO dataset, maintaining high stability in disturbance experiments. Specifically, with Gaussian noise and random blur, ResSeMo's accuracy dropped by only 4.1% on TrashNet and 6.4% on TACO. Compared to traditional models like VGG16, it demonstrates a clear advantage in anti-disturbance performance. This model not only performs excellently on standard datasets but also adapts to waste classification needs in complex environments, providing strong support for smart waste classification systems.

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Publication Details

Journal
Scientific Reports
Published
2026-03-26
DOI
https://doi.org/10.1038/s41598-026-45814-5
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
0.00
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article

ResSeMo: deep convolutional neural network integration for high-accuracy waste classification and efficient processing

Tao Liu, Zihao Wang, Bingzheng Li
Scientific Reports
Advanced Neural Network Applications
article

ResSeMo: deep convolutional neural network integration for high-accuracy waste classification and efficient processing

Tao Liu, Zihao Wang, Bingzheng Li
article en

Abstract

As urban waste issues become increasingly severe, traditional waste classification methods can no longer meet the demands for efficiency and accuracy. Deep learning technology has gradually become a key solution to this problem, yet improving classification accuracy, processing efficiency, and model adaptability in complex scenarios remains a challenge. This paper proposes a lightweight waste classification model, ResSeMo, based on multi-module collaborative optimization. The model combines ResNeXt's multi-scale feature extraction, SENet's channel attention mechanism, and MobileNetV3's lightweight design to effectively improve classification accuracy, reduce computational overhead, and enhance robustness in complex backgrounds. Experimental results show that ResSeMo achieved 91.3% accuracy on the TrashNet dataset and 86.9% on the TACO dataset, maintaining high stability in disturbance experiments. Specifically, with Gaussian noise and random blur, ResSeMo's accuracy dropped by only 4.1% on TrashNet and 6.4% on TACO. Compared to traditional models like VGG16, it demonstrates a clear advantage in anti-disturbance performance. This model not only performs excellently on standard datasets but also adapts to waste classification needs in complex environments, providing strong support for smart waste classification systems.

Scientific Reports
Google (United States) (US), Northeast Agricultural University (CN)
Responsible consumption and production
Openalex Percentile: Top 5%
Advanced Neural Network Applications
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