RGHD: A Risk-Gated Harvestability Decision Framework for Occlusion-Aware Greenhouse Melon Harvesting

Greenhouse melon harvesting is challenged by leaf occlusion and dense clustering, which often lead to unsafe harvesting attempts in conventional detection-only systems. To prioritize operational safety, this study proposes the Risk-Gated Harvestability Decision (RGHD) framework. The approach decouples candidate fruit detection from risk-aware reasoning by integrating a lightweight YOLO11n detector with an EGSA-enhanced ShuffleNetV2 occlusion classifier. A logic-gated module then fuses multi-source cues—occlusion, overlap, and scale—to enforce a Safety-First harvesting policy. Experimental results show the detector achieves an [email protected]:0.95 of 75.8% while running at 113.3 FPS. Under the Safety-First policy, the proxy unsafe-acceptance rate (FPR under our operational proxy) decreased from 8.7% to 4.4%, corresponding to a 49.4% relative reduction in the risk of unsafe attempts, while maintaining 88.0% decision precision. Although an Efficiency-First mode is available for high throughput (91.0% recall), the Safety-First strategy provides the robust crop protection necessary for autonomous systems. Overall, RGHD provides a lightweight, risk-aware decision layer that improves operational safety while preserving real-time performance in cluttered greenhouse scenes.

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Publication Details

Journal
Agriculture
Published
2026-03-04
DOI
https://doi.org/10.3390/agriculture16050589
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
0.00

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article

RGHD: A Risk-Gated Harvestability Decision Framework for Occlusion-Aware Greenhouse Melon Harvesting

Guohai ZHANG, Huixing Qu, Yongbing Hao, Shijun Song et al.
Agriculture
Smart Agriculture and AI
article

RGHD: A Risk-Gated Harvestability Decision Framework for Occlusion-Aware Greenhouse Melon Harvesting

Guohai ZHANG, Huixing Qu, Yongbing Hao, Shijun Song, Shaowei Wang, Huawei Yang
article en

Abstract

Greenhouse melon harvesting is challenged by leaf occlusion and dense clustering, which often lead to unsafe harvesting attempts in conventional detection-only systems. To prioritize operational safety, this study proposes the Risk-Gated Harvestability Decision (RGHD) framework. The approach decouples candidate fruit detection from risk-aware reasoning by integrating a lightweight YOLO11n detector with an EGSA-enhanced ShuffleNetV2 occlusion classifier. A logic-gated module then fuses multi-source cues—occlusion, overlap, and scale—to enforce a Safety-First harvesting policy. Experimental results show the detector achieves an [email protected]:0.95 of 75.8% while running at 113.3 FPS. Under the Safety-First policy, the proxy unsafe-acceptance rate (FPR under our operational proxy) decreased from 8.7% to 4.4%, corresponding to a 49.4% relative reduction in the risk of unsafe attempts, while maintaining 88.0% decision precision. Although an Efficiency-First mode is available for high throughput (91.0% recall), the Safety-First strategy provides the robust crop protection necessary for autonomous systems. Overall, RGHD provides a lightweight, risk-aware decision layer that improves operational safety while preserving real-time performance in cluttered greenhouse scenes.

AgricultureVol. 16(5)
Shandong University of Technology (CN), Shandong Academy of Agricultural Machinery Sciences (CN), Ningbo Product Quality Supervision and Inspection Institute (CN), Shandong Special Equipment Inspection Institute (CN)
Department of Science and Technology of Shandong Province
Openalex Percentile: Top 36%
Smart Agriculture and AI
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