Boardman Leigh, Sørensen Jesper Givskov, Johnson Shelley A, Terblanche John S
Department of Conservation Ecology and Entomology, Stellenbosch University Stellenbosch, South Africa.
Front Physiol. 2011 Dec 2;2:92. doi: 10.3389/fphys.2011.00092. eCollection 2011.
Controlled atmosphere treatments using carbon dioxide, oxygen, and/or nitrogen, together with controlled temperature and humidity, form an important method for post-harvest sterilization against insect-infested fruit. However, in insects, the cross tolerance and biochemical interactions between the various stresses of modified gas conditions and low temperature may either elicit or block standard stress responses which can potentiate (or limit) lethal low temperature exposure. Thus, the success of such treatments is sometimes erratic and does not always result in the desired pest mortality. This review focuses on the biochemical modes of action whereby controlled atmospheres affect insects low temperature tolerance, making them more (or occasionally, less) susceptible to cold sterilization. Insights into the integrated biochemical modes of action may be used together with the pests' low temperature tolerance physiology to determine which treatments may be of value in post-harvest sterilization.
使用二氧化碳、氧气和/或氮气,并结合控制温度和湿度的气调处理,是针对受虫害水果进行采后杀菌的一种重要方法。然而,在昆虫中,气调条件和低温等各种胁迫之间的交叉耐受性和生化相互作用,可能会引发或阻断标准应激反应,从而增强(或限制)致死性低温暴露。因此,此类处理的效果有时不稳定,并不总能达到预期的害虫死亡率。本综述重点关注气调影响昆虫低温耐受性的生化作用模式,使它们对冷杀菌更敏感(或偶尔更不敏感)。深入了解综合生化作用模式,可与害虫的低温耐受生理学一起,用于确定哪些处理方法在采后杀菌中可能具有价值。