Design and Application of a Cloud Platform for Broiler Inspection Robots

To reduce the labor intensity of manual inspection and support centralized robot management in commercial caged broiler farming, this study designed and implemented a cloud platform for broiler inspection robots based on a layered IoT architecture. The platform supports robot task scheduling, remote control, real-time status monitoring, multimodal data acquisition, hierarchical cloud storage, and structured warning-event management. Dead chicken detection was selected as the primary field-validated anomaly-analysis task. Open-mouth behavior recognition, thermal anomaly analysis, and abnormal sound identification were integrated as auxiliary screening functions. A three-month field trial was conducted in a commercial four-tier caged broiler house. The platform achieved a robot command success rate of 99%, a real-time status refresh delay below 3 s, backend service availability of 99.95%, and an average robot offline frequency of 0.2 times per week. Field validation of dead chicken detection achieved a precision of 90.6%, recall of 90.4%, F1 score of 90.5%, and cage-level localization accuracy of 96%. These results indicate that the proposed platform can support routine robot inspection, warning-event review, carcass localization, and targeted farm management response in commercial caged broiler production.

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Publication Details

Journal
Agriculture
Published
2026-05-29
DOI
https://doi.org/10.3390/agriculture16111201
Primary Topic
Food Supply Chain Traceability
Type
article
Field-Weighted Citation Impact
0.00

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article

Design and Application of a Cloud Platform for Broiler Inspection Robots

Guangyu Zhao, He Zhu, Sai Luo, Deqi Hao et al.
Agriculture
Food Supply Chain Traceability
article

Design and Application of a Cloud Platform for Broiler Inspection Robots

Guangyu Zhao, He Zhu, Sai Luo, Deqi Hao, Jingkun Sun, H Y Wang, Changxi Chen
article en

Abstract

To reduce the labor intensity of manual inspection and support centralized robot management in commercial caged broiler farming, this study designed and implemented a cloud platform for broiler inspection robots based on a layered IoT architecture. The platform supports robot task scheduling, remote control, real-time status monitoring, multimodal data acquisition, hierarchical cloud storage, and structured warning-event management. Dead chicken detection was selected as the primary field-validated anomaly-analysis task. Open-mouth behavior recognition, thermal anomaly analysis, and abnormal sound identification were integrated as auxiliary screening functions. A three-month field trial was conducted in a commercial four-tier caged broiler house. The platform achieved a robot command success rate of 99%, a real-time status refresh delay below 3 s, backend service availability of 99.95%, and an average robot offline frequency of 0.2 times per week. Field validation of dead chicken detection achieved a precision of 90.6%, recall of 90.4%, F1 score of 90.5%, and cage-level localization accuracy of 96%. These results indicate that the proposed platform can support routine robot inspection, warning-event review, carcass localization, and targeted farm management response in commercial caged broiler production.

AgricultureVol. 16(11)
Tianjin Agricultural University (CN), Ministry of Agriculture and Rural Affairs (CN)
National Key Research and Development Program of China
Decent work and economic growth
Openalex Percentile: Top 7%
Food Supply Chain Traceability
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