Thakur Yamini, Tevatiya Sanjay, Kumar Gaurav, Jeena Meenakshi, Verma Vaishali, Dixit Rajnikant, Pasi Shweta, Eapen Alex, Kaur Jaspreet
Department of Vector Genomics and Vector Biology, ICMR- National Institute of Malaria Research, New Delhi, India.
Academy of Scientific and Innovative Research (AcSIR), Ghaziabad, India.
Front Insect Sci. 2025 Aug 29;5:1602055. doi: 10.3389/finsc.2025.1602055. eCollection 2025.
The insect cuticle, vital for structural maintenance, forms their exoskeleton. It is mainly composed of an intermesh of - structural cuticle proteins (CPs) with polysaccharide chitin. The insect CPs encoded by genes are indispensable for morphology, development and adaptation to various ecological niches across all life stages. The number of CPs may vary across genera and species, with almost 150 proteins in and more than 298 CPs found in . While they have been extensively studied in insects such as agricultural pests, limited studies have been conducted on mosquitoes, particularly those relevant to public health, such as the a key malaria vector.
This review recapitulates current knowledge on CPs in insects, while also underscoring vital knowledge gaps regarding regulation and metabolic crosstalk of CPs with other signaling and/or metabolic pathways.
We performed a comprehensive review of published studies and extracted data from databases including Vectorbase and NCBI with the aim of retrieving information on cuticular proteins, their gene families, abundance and associated functions. Additionally, we identified and analyzed the gaps in the available information. A literature search was conducted between (2000 and 2025) in an electronic database using PubMed, Scopus and Google Scholar. The search keywords were: cuticular proteins, cuticular genes, , mosquito cuticle proteins, insecticide resistance, and CP gene families.Inclusion criteria: peer-reviewed research articles and review papers particularly focused on CPs in insects and mosquito species.
In the present review, we provide comprehensive analysis of cuticle protein families across insects including mosquitoes based on available data. We further highlight their basic constituents and protein domain structure, offering insight into their role in insect physiology. We have effectively integrated insect studies with mosquito-specific research on CPs (bridging the gap between insect and mosquito-specific research). This holistic approach would facilitate a broader comprehension of CPs in both insect and mosquito vectors.
The goal of this study is to enhance our understanding of insects and biology and how studies on CPs could be leveraged to develop novel strategy for management of pest and combat vector-borne diseases (VBDs).
昆虫表皮对维持结构至关重要,构成其外骨骼。它主要由结构角质层蛋白(CPs)与多糖几丁质相互交织而成。由基因编码的昆虫CPs在昆虫整个生命周期的形态、发育以及适应各种生态位方面不可或缺。不同属和物种的CPs数量可能不同,如在[某昆虫名1]中有近150种蛋白质,在[某昆虫名2]中发现了超过298种CPs。虽然它们在农业害虫等昆虫中已得到广泛研究,但对蚊子,尤其是与公共卫生相关的蚊子,如主要疟疾传播媒介[疟蚊学名]的研究有限。
本综述总结了关于昆虫CPs的现有知识,同时强调了关于CPs调控以及与其他信号和/或代谢途径的代谢相互作用方面的重要知识空白。
我们对已发表的研究进行了全面综述,并从包括Vectorbase和NCBI在内的数据库中提取数据,旨在获取有关表皮蛋白、其基因家族、丰度和相关功能的信息。此外,我们识别并分析了现有信息中的空白。在2000年至2025年期间,使用PubMed、Scopus和谷歌学术在电子数据库中进行文献检索。检索关键词为:表皮蛋白、表皮基因、[疟蚊学名]、蚊子表皮蛋白、抗杀虫剂性和CP基因家族。纳入标准:同行评审的研究文章和综述论文,特别关注昆虫和[疟蚊学名]物种中的CPs。
在本综述中,我们基于现有数据对包括蚊子在内的各类昆虫的表皮蛋白家族进行了全面分析。我们进一步突出了它们的基本组成成分和蛋白质结构域结构,深入了解它们在昆虫生理学中的作用。我们有效地将昆虫研究与针对蚊子CPs的特定研究相结合(弥合昆虫研究与蚊子特定研究之间的差距)。这种整体方法将有助于更广泛地理解昆虫和蚊子媒介中的CPs。
本研究的目标是增进我们对昆虫和[疟蚊学名]生物学的理解,以及如何利用对CPs的研究来制定害虫管理和对抗媒介传播疾病(VBDs)的新策略。