SvelteNeck by EHConv: A Cross-Generational Lightweight Neck for Real-Time Object Detection

Efficient object detection is vital for Remotely Operated Vehicles (ROVs) performing marine debris cleanup, yet existing lightweight designs frequently encounter efficiency bottlenecks when adapted to deeper neural networks. This research identifies a critical “Inverted Bottleneck” anomaly in the Slim-Neck architecture on the YOLO11 backbone, where deep-layer Memory Access Cost (MAC) abnormally spikes. To address this, we propose SvelteNeck-YOLO. By incorporating the proposed EHSCSP module and EHConv operator, the model systematically eliminates computational redundancies. Empirical validation on the TrashCan and URPC2019 datasets demonstrates that the model resolves the memory wall issue, achieving a state-of-the-art trade-off with only 5.8 GFLOPs. Specifically, it delivers a 34% relative reduction in computational load compared to specialized underwater models while maintaining a superior Recall of 0.859. Consequently, SvelteNeck-YOLO establishes a robust, cross-generational solution, optimizing the Pareto frontier between inference speed and detection sensitivity for resource-constrained underwater edge computing.

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Publication Details

Journal
Algorithms
Published
2026-02-01
DOI
https://doi.org/10.3390/a19020113
Primary Topic
Advanced Neural Network Applications
Type
article
Field-Weighted Citation Impact
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article

SvelteNeck by EHConv: A Cross-Generational Lightweight Neck for Real-Time Object Detection

Huilin Dong, Wenbin Wang, Kun Zhang, Baojiang Ye et al.
Algorithms
Advanced Neural Network Applications
article

SvelteNeck by EHConv: A Cross-Generational Lightweight Neck for Real-Time Object Detection

Huilin Dong, Wenbin Wang, Kun Zhang, Baojiang Ye, Tianyi Wang, Haifeng Wang
article en

Abstract

Efficient object detection is vital for Remotely Operated Vehicles (ROVs) performing marine debris cleanup, yet existing lightweight designs frequently encounter efficiency bottlenecks when adapted to deeper neural networks. This research identifies a critical “Inverted Bottleneck” anomaly in the Slim-Neck architecture on the YOLO11 backbone, where deep-layer Memory Access Cost (MAC) abnormally spikes. To address this, we propose SvelteNeck-YOLO. By incorporating the proposed EHSCSP module and EHConv operator, the model systematically eliminates computational redundancies. Empirical validation on the TrashCan and URPC2019 datasets demonstrates that the model resolves the memory wall issue, achieving a state-of-the-art trade-off with only 5.8 GFLOPs. Specifically, it delivers a 34% relative reduction in computational load compared to specialized underwater models while maintaining a superior Recall of 0.859. Consequently, SvelteNeck-YOLO establishes a robust, cross-generational solution, optimizing the Pareto frontier between inference speed and detection sensitivity for resource-constrained underwater edge computing.

AlgorithmsVol. 19(2)
Hainan Normal University (CN), Hainan Tropical Ocean University (CN)
Life below water
Openalex Percentile: Top 73%
Advanced Neural Network Applications
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