Heat shock proteins, thermotolerance, and insecticide resistance in mosquitoes

Lindsey K. Mack, G. Attardo
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Abstract

Mosquitoes transmit pathogens that pose a threat to millions of people globally. Unfortunately, widespread insecticide resistance makes it difficult to control these public health pests. General mechanisms of resistance, such as target site mutations or increased metabolic activity, are well established. However, many questions regarding the dynamics of these adaptations in the context of developmental and environmental conditions require additional exploration. One aspect of resistance that deserves further study is the role of heat shock proteins (HSPs) in insecticide tolerance. Studies show that mosquitoes experiencing heat stress before insecticide exposure demonstrate decreased mortality. This is similar to the observed reciprocal reduction in mortality in mosquitoes exposed to insecticide prior to heat stress. The environmental shifts associated with climate change will result in mosquitoes occupying environments with higher ambient temperatures, which could enhance existing insecticide resistance phenotypes. This physiological relationship adds a new dimension to the problem of insecticide resistance and further complicates the challenges that vector control and public health personnel face. This article reviews studies illustrating the relationship between insecticide resistance and HSPs or hsp genes as well as the intersection of thermotolerance and insecticide resistance. Further study of HSPs and insecticide resistance could lead to a deeper understanding of how environmental factors modulate the physiology of these important disease vectors to prepare for changing climatic conditions and the development of novel strategies to prevent vector-borne disease transmission.
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蚊子的热休克蛋白、耐热性和杀虫剂抗药性
蚊子传播病原体,对全球数百万人构成威胁。不幸的是,杀虫剂抗药性的普遍存在使得这些公共卫生害虫难以控制。抗药性的一般机制,如目标位点突变或代谢活动增加,已经得到公认。然而,关于这些适应性在发育和环境条件下的动态变化,还有许多问题需要进一步探讨。值得进一步研究的抗药性的一个方面是热休克蛋白(HSPs)在杀虫剂耐受性中的作用。研究表明,蚊子在接触杀虫剂之前经历热应激,死亡率会降低。这与观察到的在热应激前接触杀虫剂的蚊子死亡率的对等降低相似。与气候变化相关的环境变化将导致蚊子占据更高的环境温度,这可能会增强现有的杀虫剂抗性表型。这种生理关系为杀虫剂抗药性问题增添了新的层面,使病媒控制和公共卫生人员面临的挑战更加复杂。本文回顾了说明杀虫剂抗药性与 HSPs 或 hsp 基因之间关系的研究,以及耐热性与杀虫剂抗药性之间的交叉关系。对 HSPs 和杀虫剂抗性的进一步研究可使人们更深入地了解环境因素如何调节这些重要病媒的生理机能,从而为应对不断变化的气候条件做好准备,并开发出预防病媒传播疾病的新策略。
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