Multi-scale Feature Fusion Assisted: Fresh Air Pipeline Leakage Detection Using an Improved Faster-RCNN

To address the issue of the accuracy degradation caused by high-noise environments in fresh air pipeline leakage detection, we propose an improved Faster-RCNN model that innovatively integrates the advantages of channel-spatial attention and feature pyramid network (FPN). Concretely, channel–spatial attention is used to adaptively suppress non-target noise regions within spectrograms, thereby mitigating interference during leakage detection. The FPN is utilized to fuse multi-scale time-frequency features to further enhance the performance of leakage detection in high-noise environments. The proposed model is evaluated on our dataset that includes different noises, including turbulence, rock impacts, and wind. Experimental results show that under low signal-to-noise-ratio (5 dB) scenarios, the proposed model achieves a detection accuracy of 97.2%, outperforming the baseline Faster-RCNN by 6.3 %. Moreover, compared to the baseline model, the false-alarm rate of the proposed model is reduced to 2.8%, demonstrating the robustness and practicality of the proposed model in high-noise environments.

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Publication Details

Published
2025-06-27
DOI
https://doi.org/10.1109/icaiem66060.2025.11139248
Primary Topic
Water Systems and Optimization
Type
article
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article

Multi-scale Feature Fusion Assisted: Fresh Air Pipeline Leakage Detection Using an Improved Faster-RCNN

Wei Liu, Wei Sun, Jian Shi, Pin Lyu
Water Systems and Optimization
article

Multi-scale Feature Fusion Assisted: Fresh Air Pipeline Leakage Detection Using an Improved Faster-RCNN

Wei Liu, Wei Sun, Jian Shi, Pin Lyu
article en

Abstract

To address the issue of the accuracy degradation caused by high-noise environments in fresh air pipeline leakage detection, we propose an improved Faster-RCNN model that innovatively integrates the advantages of channel-spatial attention and feature pyramid network (FPN). Concretely, channel–spatial attention is used to adaptively suppress non-target noise regions within spectrograms, thereby mitigating interference during leakage detection. The FPN is utilized to fuse multi-scale time-frequency features to further enhance the performance of leakage detection in high-noise environments. The proposed model is evaluated on our dataset that includes different noises, including turbulence, rock impacts, and wind. Experimental results show that under low signal-to-noise-ratio (5 dB) scenarios, the proposed model achieves a detection accuracy of 97.2%, outperforming the baseline Faster-RCNN by 6.3 %. Moreover, compared to the baseline model, the false-alarm rate of the proposed model is reduced to 2.8%, demonstrating the robustness and practicality of the proposed model in high-noise environments.

Shanghai Dianji University (CN)
Openalex Percentile: Top 76%
Water Systems and Optimization
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