Jin Yuqiao, Adhikari Achyut
School of Nutrition and Food Sciences, Louisiana State University, Baton Rouge, LA 70803, USA.
Foods. 2025 May 28;14(11):1924. doi: 10.3390/foods14111924.
The consumption of fresh produce has significantly increased in recent years, contributing to improved diets through the provision of essential nutrients, vitamins, and fiber. However, there has been a rise in foodborne illness outbreaks linked to fruits and vegetables, often caused by pathogens such as O157:H7, spp., and . These outbreaks have led to severe health consequences, including illnesses, hospitalizations, and even deaths. Once produce is contaminated by foodborne pathogens, these pathogens are difficult to eliminate. Traditional decontamination methods, such as water washes and chlorine-based sanitizers, have been widely used to address these microbial concerns. However, these methods may not be effective against pathogens in crevices or biofilms on the surface of produce, and their effectiveness varies depending on the type of produce and pathogens. Moreover, the chemicals used may raise health and environmental concerns. As a result, novel technologies for pathogen inactivation are gaining attention. These include ozone, ultraviolet light, cold plasma, pulsed light, ultrasound, microbubbles, nanobubbles, electrolyzed water, high-pressure processing, chlorine dioxide gas, and among others. This paper reviews a range of emerging and innovative technologies for the sanitization of fresh produce. The mechanisms, advancements, and practical applications of these technologies are examined with a focus on enhancing food safety and preserving produce quality. These innovative methods provide new opportunities for both research and industry to develop practical, affordable, and safe solutions for maintaining produce safety and quality. Recent studies highlight the effectiveness of combining methods, showing that using multiple sanitization techniques can significantly improve pathogen inactivation on fresh produce. For example, more than 5 log reductions of and on avocado, watermelon, and mushroom can be achieved with the combined application of pulsed light and malic acid in previous research. In this review, we recommend the application of combined sanitization methods, emphasizing that integrating multiple techniques can provide a more effective and comprehensive approach to pathogen inactivation. This combined-method strategy has become a promising and innovative trend in the ongoing efforts to improve produce safety and quality.
近年来,新鲜农产品的消费量显著增加,通过提供必需营养素、维生素和纤维,有助于改善饮食。然而,与水果和蔬菜相关的食源性疾病暴发有所增加,这些暴发通常由诸如O157:H7、 spp.和 等病原体引起。这些暴发导致了严重的健康后果,包括疾病、住院甚至死亡。一旦农产品被食源性病原体污染,这些病原体就很难消除。传统的去污方法,如水洗和氯基消毒剂,已被广泛用于解决这些微生物问题。然而,这些方法可能对农产品表面缝隙或生物膜中的病原体无效,其有效性因农产品和病原体的类型而异。此外,所使用的化学物质可能引发健康和环境问题。因此,用于病原体灭活的新技术正受到关注。这些技术包括臭氧、紫外线、冷等离子体、脉冲光、超声波、微气泡、纳米气泡、电解水、高压处理、二氧化氯气体等等。本文综述了一系列用于新鲜农产品消毒的新兴和创新技术。研究了这些技术的作用机制、进展和实际应用,重点是提高食品安全和保持农产品质量。这些创新方法为研究和行业开发实用、经济且安全的解决方案以维持农产品安全和质量提供了新机会。最近的研究突出了联合使用多种方法的有效性,表明使用多种消毒技术可显著提高新鲜农产品上病原体的灭活率。例如,在先前的研究中,脉冲光和苹果酸联合应用可使鳄梨、西瓜和蘑菇上的 和 减少超过5个对数单位。在本综述中,我们推荐应用联合消毒方法,强调整合多种技术可为病原体灭活提供更有效和全面的方法。这种联合方法策略已成为当前提高农产品安全和质量努力中的一个有前景的创新趋势。