Quality monitoring of table grapes stored in controlled atmosphere using an S3 + MOS nanosensor device

This study explores the use and the effectiveness of advanced sensor technology to monitor and maintain the quality of table grapes, cv. Italia, stored at 2 °C in controlled atmospheres (CA) over different storage times. Two CA conditions were evaluated: CA-1 with suitable conditions (3 % O₂, 10 % CO₂) and CA-2 harsh conditions (3 % O₂, 30 % CO₂), in comparison to conventional air storage. Using the Metal Oxide Gas sensors (S3 + electronic nose) and the classical approach of Solid Phase Microextraction-Gas Chromatography-Mass Spectrometry (SPME-GC-MS) to validate sensor data, the research analyzed the grapes' volatilome, identifying total volatile organic compounds (VOCs) and markers of freshness and quality degradation. Results indicate that gaseous mixtures significantly influence the volatile composition of grapes, affecting sensory attributes and shelf life. While both CA treatments improved visual quality by reducing oxidation, browning, and mould development, they also increased respiration rates, leading to the production of volatiles that negatively impacted aroma over time. The S3 + electronic nose findings are closely aligned with GC-MS results, demonstrating that grapes stored in CA-2 deviated significantly from both fresh samples and those stored in CA-1 or conventional air. CA-2, with its higher CO₂ concentration, was the least favorable for maintaining grape quality. The study highlights the potential of S3 + IoT nanosensors for real-time VOC monitoring, providing an effective tool for agri-food quality management. Integrating S3 + sensors into storage systems could optimize conditions, minimize waste, and enhance supply chain efficiency and sustainability. • Optimal O₂ and CO₂ levels studied to extend table grape shelf life. • GC-MS technique to identify and quantify volatiles in table grape samples. • MOS sensors use to monitor fruit volatile profiles in controlled atmospheres. • Tailor made IoT nanosensors for monitoring table grape shelf life. • Grapes in CA-2 showed the worst quality in comparison to fresh, CA-1, or air.

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Publication Details

Journal
Postharvest Biology and Technology
Published
2025-04-14
DOI
https://doi.org/10.1016/j.postharvbio.2025.113587
Citations
5
Primary Topic
Advanced Chemical Sensor Technologies
Type
article
Field-Weighted Citation Impact
3.37
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article

Quality monitoring of table grapes stored in controlled atmosphere using an S3 + MOS nanosensor device

Dario Genzardi, Bernardo Pace, Estefanía Núñez-Carmona, Michela Palumbo et al.
5 citations
Postharvest Biology and Technology
Advanced Chemical Sensor Technologies
3.37
article

Quality monitoring of table grapes stored in controlled atmosphere using an S3 + MOS nanosensor device

Dario Genzardi, Bernardo Pace, Estefanía Núñez-Carmona, Michela Palumbo, Immacolata Caruso, Veronica Sberveglieri, Maria Chiara, Maria Cefola, Elisabetta Poeta
article en
5 citations

Abstract

This study explores the use and the effectiveness of advanced sensor technology to monitor and maintain the quality of table grapes, cv. Italia, stored at 2 °C in controlled atmospheres (CA) over different storage times. Two CA conditions were evaluated: CA-1 with suitable conditions (3 % O₂, 10 % CO₂) and CA-2 harsh conditions (3 % O₂, 30 % CO₂), in comparison to conventional air storage. Using the Metal Oxide Gas sensors (S3 + electronic nose) and the classical approach of Solid Phase Microextraction-Gas Chromatography-Mass Spectrometry (SPME-GC-MS) to validate sensor data, the research analyzed the grapes' volatilome, identifying total volatile organic compounds (VOCs) and markers of freshness and quality degradation. Results indicate that gaseous mixtures significantly influence the volatile composition of grapes, affecting sensory attributes and shelf life. While both CA treatments improved visual quality by reducing oxidation, browning, and mould development, they also increased respiration rates, leading to the production of volatiles that negatively impacted aroma over time. The S3 + electronic nose findings are closely aligned with GC-MS results, demonstrating that grapes stored in CA-2 deviated significantly from both fresh samples and those stored in CA-1 or conventional air. CA-2, with its higher CO₂ concentration, was the least favorable for maintaining grape quality. The study highlights the potential of S3 + IoT nanosensors for real-time VOC monitoring, providing an effective tool for agri-food quality management. Integrating S3 + sensors into storage systems could optimize conditions, minimize waste, and enhance supply chain efficiency and sustainability. • Optimal O₂ and CO₂ levels studied to extend table grape shelf life. • GC-MS technique to identify and quantify volatiles in table grape samples. • MOS sensors use to monitor fruit volatile profiles in controlled atmospheres. • Tailor made IoT nanosensors for monitoring table grape shelf life. • Grapes in CA-2 showed the worst quality in comparison to fresh, CA-1, or air.

Postharvest Biology and TechnologyVol. 227
University of Modena and Reggio Emilia (IT), Institute of Biosciences and Bioresources (IT), Sensor Electronics (United States) (US), Institute of Sciences of Food Production (IT)
Openalex Percentile: Top 8%
Advanced Chemical Sensor Technologies
3.37
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