{"title":"用于果蝇可持续管理的 Bactrocera 种类的嗅觉受体:综述与未来展望","authors":"Saleem Jaffar, Guy Smagghe, Yongyue Lu","doi":"10.1111/phen.12428","DOIUrl":null,"url":null,"abstract":"<p>Molecular studies on odorant receptors (ORs), odorant-binding proteins (OBPs) and the functioning of the receptor and pheromone signal transduction in fruit fly <i>Bactrocera</i> species have expanded exponentially during the past few decades. OBPs contribute to the sensing of the olfactory system (OS) via the transduction of odorants through the sensillum lymph. However, ORs, a family of G-protein-coupled receptors in <i>Bactrocera</i> and various other species, exhibit heightened responsiveness to multiple chemical odours such as hormones, sensory stimuli and neurotransmitters. The apparent mechanism involves a combinatorial code encompassing both peripheral and antennal lobe processing, facilitating the reception of sexual pheromones and environmental cues. The OS is specifically designed to recognize and process information from volatile chemical signals, and these chemical signals play an important function in various flies. Insects rely on these chemicals to navigate and comprehend their surroundings. A mature insect OS is composed of two pairs of sensillae-covered palps, antennae and two primary pairs of olfactory appendages on the anterior head. It has been shown that chemosensory gene families contribute in odour perception. These include various neuroreceptor families, such as OBPs, chemosensory proteins and sensory neuron membrane proteins. Additionally, there are three divergent chemoreceptors, namely ORs, ionotropic receptors and gustatory receptors. Methods based on systematic biology, molecular biology and bioinformatics tools have rapidly emerged to investigate the insect communication systems and provide new insights for the management of many agricultural pest. Several aromatic compounds, including semiochemicals and pheromones, have been employed to defend crops and animals from destructive fruit flies and other invasive and frugivorous species. To promote the expansion of the cropping system, the utilization of phytochemical lures can be convenient for sustainable agriculture production and enhance food security. Hence, this review examined the state of the art in chemical communication of insects with a focus on fruit fly pest species to identify OS and their semiochemical receptors, protein receptors and chemosensory receptors (CSRs), as well as their practical applications for biological control and integrated pest management are highlighted.</p>","PeriodicalId":20081,"journal":{"name":"Physiological Entomology","volume":"49 2","pages":"67-90"},"PeriodicalIF":1.6000,"publicationDate":"2024-01-24","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://onlinelibrary.wiley.com/doi/epdf/10.1111/phen.12428","citationCount":"0","resultStr":"{\"title\":\"Olfactory receptors in Bactrocera species for sustainable fruit fly management: A review and future perspectives\",\"authors\":\"Saleem Jaffar, Guy Smagghe, Yongyue Lu\",\"doi\":\"10.1111/phen.12428\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p>Molecular studies on odorant receptors (ORs), odorant-binding proteins (OBPs) and the functioning of the receptor and pheromone signal transduction in fruit fly <i>Bactrocera</i> species have expanded exponentially during the past few decades. OBPs contribute to the sensing of the olfactory system (OS) via the transduction of odorants through the sensillum lymph. However, ORs, a family of G-protein-coupled receptors in <i>Bactrocera</i> and various other species, exhibit heightened responsiveness to multiple chemical odours such as hormones, sensory stimuli and neurotransmitters. The apparent mechanism involves a combinatorial code encompassing both peripheral and antennal lobe processing, facilitating the reception of sexual pheromones and environmental cues. The OS is specifically designed to recognize and process information from volatile chemical signals, and these chemical signals play an important function in various flies. Insects rely on these chemicals to navigate and comprehend their surroundings. A mature insect OS is composed of two pairs of sensillae-covered palps, antennae and two primary pairs of olfactory appendages on the anterior head. It has been shown that chemosensory gene families contribute in odour perception. These include various neuroreceptor families, such as OBPs, chemosensory proteins and sensory neuron membrane proteins. Additionally, there are three divergent chemoreceptors, namely ORs, ionotropic receptors and gustatory receptors. Methods based on systematic biology, molecular biology and bioinformatics tools have rapidly emerged to investigate the insect communication systems and provide new insights for the management of many agricultural pest. Several aromatic compounds, including semiochemicals and pheromones, have been employed to defend crops and animals from destructive fruit flies and other invasive and frugivorous species. To promote the expansion of the cropping system, the utilization of phytochemical lures can be convenient for sustainable agriculture production and enhance food security. 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引用次数: 0
摘要
在过去几十年中,对果蝇双翅目物种中气味受体(ORs)、气味结合蛋白(OBPs)以及受体功能和信息素信号转导的分子研究急剧增加。OBPs通过感觉淋巴转导气味物质,有助于嗅觉系统(OS)的感知。然而,乳蝇和其他各种物种的 G 蛋白偶联受体(ORs)家族对多种化学气味(如激素、感觉刺激和神经递质)表现出更强的反应能力。这种明显的机制涉及一个包括外周和触角叶处理的组合代码,有助于接收性信息素和环境线索。操作系统专门用于识别和处理来自挥发性化学信号的信息,这些化学信号在各种苍蝇中发挥着重要作用。昆虫依靠这些化学物质来导航和理解周围的环境。成熟的昆虫操作系统由两对覆盖着感觉器的上颚、触角和头部前部的两对主要嗅觉附属器组成。研究表明,化学感知基因家族有助于气味感知。这些基因包括各种神经受体家族,如 OBPs、化感蛋白和感觉神经元膜蛋白。此外,还有三种不同的化学感受器,即 ORs、离子感受器和味觉感受器。基于系统生物学、分子生物学和生物信息学工具的方法已迅速出现,用于研究昆虫的通讯系统,并为许多农业害虫的管理提供了新的见解。一些芳香化合物,包括半化学物质和信息素,已被用来保护农作物和动物免受果蝇和其他入侵物种和食虫物种的破坏。为了促进耕作制度的扩展,利用植物化学诱饵可以促进可持续农业生产,提高粮食安全。因此,本综述以果蝇害虫物种为重点,研究了昆虫化学通讯的最新技术,以确定操作系统及其半化学受体、蛋白质受体和化感受体(CSR),并重点介绍了它们在生物防治和害虫综合治理中的实际应用。
Olfactory receptors in Bactrocera species for sustainable fruit fly management: A review and future perspectives
Molecular studies on odorant receptors (ORs), odorant-binding proteins (OBPs) and the functioning of the receptor and pheromone signal transduction in fruit fly Bactrocera species have expanded exponentially during the past few decades. OBPs contribute to the sensing of the olfactory system (OS) via the transduction of odorants through the sensillum lymph. However, ORs, a family of G-protein-coupled receptors in Bactrocera and various other species, exhibit heightened responsiveness to multiple chemical odours such as hormones, sensory stimuli and neurotransmitters. The apparent mechanism involves a combinatorial code encompassing both peripheral and antennal lobe processing, facilitating the reception of sexual pheromones and environmental cues. The OS is specifically designed to recognize and process information from volatile chemical signals, and these chemical signals play an important function in various flies. Insects rely on these chemicals to navigate and comprehend their surroundings. A mature insect OS is composed of two pairs of sensillae-covered palps, antennae and two primary pairs of olfactory appendages on the anterior head. It has been shown that chemosensory gene families contribute in odour perception. These include various neuroreceptor families, such as OBPs, chemosensory proteins and sensory neuron membrane proteins. Additionally, there are three divergent chemoreceptors, namely ORs, ionotropic receptors and gustatory receptors. Methods based on systematic biology, molecular biology and bioinformatics tools have rapidly emerged to investigate the insect communication systems and provide new insights for the management of many agricultural pest. Several aromatic compounds, including semiochemicals and pheromones, have been employed to defend crops and animals from destructive fruit flies and other invasive and frugivorous species. To promote the expansion of the cropping system, the utilization of phytochemical lures can be convenient for sustainable agriculture production and enhance food security. Hence, this review examined the state of the art in chemical communication of insects with a focus on fruit fly pest species to identify OS and their semiochemical receptors, protein receptors and chemosensory receptors (CSRs), as well as their practical applications for biological control and integrated pest management are highlighted.
期刊介绍:
Physiological Entomology broadly considers “how insects work” and how they are adapted to their environments at all levels from genes and molecules, anatomy and structure, to behaviour and interactions of whole organisms. We publish high quality experiment based papers reporting research on insects and other arthropods as well as occasional reviews. The journal thus has a focus on physiological and experimental approaches to understanding how insects function. The broad subject coverage of the Journal includes, but is not limited to:
-experimental analysis of behaviour-
behavioural physiology and biochemistry-
neurobiology and sensory physiology-
general physiology-
circadian rhythms and photoperiodism-
chemical ecology