Artificial Intelligence-driven Smart Postharvest Management of Horticultural Produce: Advances, Applications and Future Perspectives

Fruits and vegetables are highly perishable, and large quantities are lost after harvest through continued ripening, water loss, mechanical damage and microbial spoilage. Conventional post-harvest management depends on manual grading, visual inspection and fixed storage settings, which are subjective, slow and unable to detect internal defects or early spoilage. Artificial intelligence (AI), applied through machine learning and deep learning, has been studied as a way to make post-harvest operations faster, more consistent and non-destructive. This review examines recent advances in AI-driven post-harvest management of fruits and vegetables across four areas: quality assessment and grading; maturity, ripeness and defect or disease detection; shelf-life and spoilage prediction; and smart storage and cold chain management. Computer vision and hyperspectral imaging are used for grading and for predicting internal attributes such as soluble solids content and firmness; deep learning models detect surface and subsurface defects and classify ripeness; electronic noses combined with machine learning track spoilage and estimate remaining shelf life and the Internet of Things (IoT) combined with AI supports monitoring, prediction and traceability during storage and transport. Reported accuracies in individual studies are frequently above 90%, but several limitations restrict practical use: poor generalisation across cultivars, seasons and operating conditions; dependence on large labelled datasets; limited model interpretability; high equipment cost and the absence of shared datasets and common definitions, which makes published results difficult to compare. The review concludes that the contribution of AI to post-harvest management will depend less on further gains in laboratory accuracy and more on developing affordable, data-efficient and robust systems suited to real operating conditions, particularly for smallholders and developing countries where post-harvest losses are highest.

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Publication Details

Journal
European Journal of Nutrition & Food Safety
Published
2026-11-09
DOI
https://doi.org/10.9734/ejnfs/2026/v18i112195
Primary Topic
Smart Agriculture and AI
Type
article
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article

Artificial Intelligence-driven Smart Postharvest Management of Horticultural Produce: Advances, Applications and Future Perspectives

Kumudani Sahu, Mukesh Sahu, GD Sahu, Neha Sahu
European Journal of Nutrition & Food Safety
Smart Agriculture and AI
article

Artificial Intelligence-driven Smart Postharvest Management of Horticultural Produce: Advances, Applications and Future Perspectives

Kumudani Sahu, Mukesh Sahu, GD Sahu, Neha Sahu
article en

Abstract

Fruits and vegetables are highly perishable, and large quantities are lost after harvest through continued ripening, water loss, mechanical damage and microbial spoilage. Conventional post-harvest management depends on manual grading, visual inspection and fixed storage settings, which are subjective, slow and unable to detect internal defects or early spoilage. Artificial intelligence (AI), applied through machine learning and deep learning, has been studied as a way to make post-harvest operations faster, more consistent and non-destructive. This review examines recent advances in AI-driven post-harvest management of fruits and vegetables across four areas: quality assessment and grading; maturity, ripeness and defect or disease detection; shelf-life and spoilage prediction; and smart storage and cold chain management. Computer vision and hyperspectral imaging are used for grading and for predicting internal attributes such as soluble solids content and firmness; deep learning models detect surface and subsurface defects and classify ripeness; electronic noses combined with machine learning track spoilage and estimate remaining shelf life and the Internet of Things (IoT) combined with AI supports monitoring, prediction and traceability during storage and transport. Reported accuracies in individual studies are frequently above 90%, but several limitations restrict practical use: poor generalisation across cultivars, seasons and operating conditions; dependence on large labelled datasets; limited model interpretability; high equipment cost and the absence of shared datasets and common definitions, which makes published results difficult to compare. The review concludes that the contribution of AI to post-harvest management will depend less on further gains in laboratory accuracy and more on developing affordable, data-efficient and robust systems suited to real operating conditions, particularly for smallholders and developing countries where post-harvest losses are highest.

European Journal of Nutrition & Food SafetyVol. 18(11)
Indira Gandhi Agricultural University (IN)
Smart Agriculture and AI
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