Real-time hydroponic plant disease detection using YOLOv11n on edge devices

Hydroponic farming offers a sustainable alternative to traditional agriculture but is highly prone to rapid disease transmission due to its shared water systems. Timely detection of plant diseases is critical to prevent widespread crop loss. In this research, the YOLOv11n object detection model was evaluated in detail for the purpose of real-time hydroponic plant disease detection, and its accuracy, inference speed, power consumption, and resource utilization were compared through various edge devices such as Raspberry Pi 5 (Raspberry Pi Holdings, Cambridge, UK), NVIDIA Jetson Nano (NVIDIA Co., Santa Clara, CA, USA), and AMD Radeon Vega 8 (AMD Micro Devices, Inc., Santa Clara, CA, USA). The results not only confirm the applicability of light-weighted and quantized deep learning models for planting disease detection at early stages in controlled hydroponic environments but also give practical knowledge for hardware-model trade-offs in the context of sustainable edge AI-based smart farming systems.

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Publication Details

Journal
Academia AI and Applications
Published
2026-03-09
DOI
https://doi.org/10.20935/acadai8169
Primary Topic
Smart Agriculture and AI
Type
article
Field-Weighted Citation Impact
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article

Real-time hydroponic plant disease detection using YOLOv11n on edge devices

Vinaya Gohokar, Rupali Kute, Nitish Wani, Clera Tribhuvan et al.
Academia AI and Applications
Smart Agriculture and AI
article

Real-time hydroponic plant disease detection using YOLOv11n on edge devices

Vinaya Gohokar, Rupali Kute, Nitish Wani, Clera Tribhuvan, Parth Aeron
article en

Abstract

Hydroponic farming offers a sustainable alternative to traditional agriculture but is highly prone to rapid disease transmission due to its shared water systems. Timely detection of plant diseases is critical to prevent widespread crop loss. In this research, the YOLOv11n object detection model was evaluated in detail for the purpose of real-time hydroponic plant disease detection, and its accuracy, inference speed, power consumption, and resource utilization were compared through various edge devices such as Raspberry Pi 5 (Raspberry Pi Holdings, Cambridge, UK), NVIDIA Jetson Nano (NVIDIA Co., Santa Clara, CA, USA), and AMD Radeon Vega 8 (AMD Micro Devices, Inc., Santa Clara, CA, USA). The results not only confirm the applicability of light-weighted and quantized deep learning models for planting disease detection at early stages in controlled hydroponic environments but also give practical knowledge for hardware-model trade-offs in the context of sustainable edge AI-based smart farming systems.

Academia AI and ApplicationsVol. 2(1)
MIT World Peace University (IN)
Zero hunger
Openalex Percentile: Top 30%
Smart Agriculture and AI
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