Beyond chemoreception: diverse tasks of soluble olfactory proteins in insects

文献类型： 外文期刊

第一作者： Zhu, Jiao

作者： Zhu, Jiao;Wang, Guirong;Iovinella, Immacolata;Dani, Francesca R.

作者机构：

关键词： odorant-binding proteins;chemosensory proteins;chemical communication;pheromone glands;proboscis;visual pigments;development;seminal fluid;biosensors;scavengers

期刊名称：BIOLOGICAL REVIEWS （ 影响因子：12.82； 五年影响因子：14.03 ）

ISSN： 1464-7931

年卷期： 2018 年 93 卷 1 期

页码：

收录情况： SCI

摘要： Odorant-binding proteins (OBPs) and chemosensory proteins (CSPs) are regarded as carriers of pheromones and odorants in insect chemoreception. These proteins are typically located in antennae, mouth organs and other chemosensory structures; however, members of both classes of proteins have been detected recently in other parts of the body and various functions have been proposed. The best studied of these non-sensory tasks is performed in pheromone glands, where OBPs and CSPs solubilise hydrophobic semiochemicals and assist their controlled release into the environment. In some cases the same proteins are expressed in antennae and pheromone glands, thus performing a dual role in receiving and broadcasting the same chemical message. Several reports have described OBPs and CSPs in reproductive organs. Some of these proteins are male specific and are transferred to females during mating. They likely carry semiochemicals with different proposed roles, from inhibiting other males from approaching mated females, to marking fertilized eggs, but further experimental evidence is still needed. Before being discovered in insects, the presence of binding proteins in pheromone glands and reproductive organs was widely reported in mammals, where vertebrate OBPs, structurally different from OBPs of insects and belonging to the lipocalin superfamily, are abundant in rodent urine, pig saliva and vaginal discharge of the hamster, as well as in the seminal fluid of rabbits. In at least four cases CSPs have been reported to promote development and regeneration: in embryo maturation in the honeybee, limb regeneration in the cockroach, ecdysis in larvae of fire ants and in promoting phase shift in locusts. Both OBPs and CSPs are also important in nutrition as solubilisers of lipids and other essential components of the diet. Particularly interesting is the affinity for carotenoids of CSPs abundantly secreted in the proboscis of moths and butterflies and the occurrence of the same (or very similar CSPs) in the eyes of the same insects. A role as a carrier of visual pigments for these proteins in insects parallels that of retinol-binding protein in vertebrates, a lipocalin structurally related to OBPs of vertebrates. Other functions of OBPs and CSPs include anti-inflammatory action in haematophagous insects, resistance to insecticides and eggshell formation. Such multiplicity of roles and the high success of both classes of proteins in being adapted to different situations is likely related to their stable scaffolding determining excellent stability to temperature, proteolysis and denaturing agents. The wide versatility of both OBPs and CSPs in nature has suggested several different uses for these proteins in biotechnological applications, from biosensors for odours to scavengers for pollutants and controlled releasers of chemicals in the environment.

分类号：

  • 相关文献

[1]Reverse chemical ecology: Olfactory proteins from the giant panda and their interactions with putative pheromones and bamboo volatiles. Wang, Guirong,Pelosi, Paolo,Arena, Simona,Scaloni, Andrea,Spinelli, Silvia,Cambillauc, Christian,Spinelli, Silvia,Cambillauc, Christian,Liu, Dingzhen,Zhang, Guiquan,Wei, Rongping.

[2]Identification and expression pattern of candidate olfactory genes in Chrysoperla sinica by antennal transcriptome analysis. Zhao-Qun Li,Shuai Zhang,Jun-Yu Luo,Si-BaoWang,Chun-Yi Wang,Li-Min Lv,Shuang-Lin Dong,Jin-Jie Cui.

[3]Identification of the genes in tea leafhopper, Empoasca onukii (Hemiptera: Cicadellidae), that encode odorant-binding proteins and chemosensory proteins using transcriptome analyses of insect heads. Bian, Lei,Li, Zhao-Qun,Cai, Xiao-Ming,Luo, Zong-Xiu,Chen, Zong-Mao,Ma, Long. 2018

[4]Molecular recognition of floral volatile with two olfactory related proteins in the Eastern honeybee (Apis cerana). Li, Hongliang,Zhang, Linya,Ni, Cuixia,Shang, Hanwu,Zhuang, Shulin,Li, Jianke.

[5]Soluble proteins of chemical communication: an overview across arthropods. Iovinella, Immacolata,Felicioli, Antonio,Dani, Francesca R.. 2014

[6]Characterization of candidate odorant-binding proteins and chemosensory proteins in the tea geometrid Ectropis obliqua Prout (Lepidoptera: Geometridae). Mao, Teng-Fei,Zhang, Yu-Xing,Wu, Jian-Jian,Bai, Jia-He,Yin, Kun-Shan,Xiao, Qiang,Sun, Liang,Guo, Yu-Yuan,Zhang, Yong-Jun,Zhang, Yu-Xing,Wu, Jian-Jian,Jiang, Xing-Chuan,Zhang, Ya-Nan.

[7]Plant transcriptomes reveal hidden guests. Wang, Guirong,Pelosi, Paolo.

[8]Conserved chemosensory proteins in the proboscis and eyes of Lepidoptera. Liu, Yang,Pelosi, Paolo,Wang, Guirong,Iovinella, Immacolata,Liu, Yu-Ling,Huang, Ling-Qiao,Wang, Chen-Zhu,Iovinella, Immacolata,Dani, Francesca Romana. 2016

[9]Detection of Salmonella Typhimurium on Spinach Using Phage-Based Magnetoelastic Biosensors. Wang, Fengen,Horikawa, Shin,Wikle, Howard C., III,Du, Songtao,Liu, Yuzhe,Chin, Bryan A.,Hu, Jiajia,Chen, I-Hsuan. 2017

[10]Alternative Soaking Media for the FDA Procedure in the Detection of Salmonella from Tomatoes and Spinach Leaf using Phage Magnetoelastic Biosensors. Chen, I-Hsuan,Horikawa, Shin,Barbaree, James M.,Chin, Bryan A.,Hu, Jiajia,Wang, Fengen. 2016

[11]Direct Electrochemical Tyrosinase Biosensor based on Mesoporous Carbon and Co3O4 Nanorods for the Rapid Detection of Phenolic Pollutants. Wang, Xue,Lu, Xianbo,Wu, Lidong,Chen, Jiping,Wang, Xue,Wu, Lidong. 2014

[12]Nanomaterials-Based Electrochemical Sensors and Biosensors for Pesticide Detection. Xiang, Ling,Zhao, Chunjiang,Wang, Jihua,Xiang, Ling,Wang, Jihua.

[13]Simple colorimetric DNA detection based on hairpin assembly reaction and target-catalytic circuits for signal amplification. Ma, Cuiping,Li, Zhaoxin,Wang, Qingyin,Ma, Cuiping,Wang, Wenshuo,Cao, Lijie.

[14]Recent Progress on Graphene-based Electrochemical Biosensors. Zhang, Yu,Shen, Jingjing,Li, Huihua,Wang, Linlin,Cao, Dashun,Feng, Xiaomiao,Ma, Yanwen,Wang, Lianhui,Zhang, Yu,Shen, Jingjing,Li, Huihua,Wang, Linlin,Cao, Dashun,Feng, Xiaomiao,Ma, Yanwen,Wang, Lianhui,Liu, Yuge.

[15]Effects of Carbon Concentrations and Carbon to Nitrogen ratios on Sporulation of Two Biological Control Fungi as Determined by Different Culture Methods. Liu, Xingzhong,Gao, Li.

[16]Expression Analysis and Binding Assays in the Chemosensory Protein Gene Family Indicate Multiple Roles in Helicoverpa armigera. Zhao-Qun Li,Shuai Zhang,Jun-Yu Luo,Jing Zhu,Jin-Jie Cui,Shuang-Lin Dong.

[17]Deep sequencing of antennal transcriptome from Callosobruchus chinensis to characterize odorant binding protein and chemosensory protein genes. Zhang, Ya-Nan,Zhu, Xiu-Yun,Qian, Jia-Li,Zhang, Zi-Jian,Li, Xiao-Ming,Kang, Ke,Xu, Lu,He, Peng. 2017

[18]Identification of pheromone-like compounds in male reproductive organs of the oriental locust Locusta migratoria. Napolitano, Elio,Serra, Andrea,Iovinella, Immacolata,Pelosi, Paolo,Zhou, Xianhong.

[19]De novo analysis of the oriental armyworm Mythimna separata antennal transcriptome and expression patterns of odorant-binding proteins. Chang, Xiang-Qian,Nie, Xiao-Pei,Zhang, Zan,Zeng, Fang-Fang,Wang, Man-Qun,Chang, Xiang-Qian,Lv, Liang,Zhang, Shu.

[20]Chemosensory proteins involved in host recognition in the stored-food mite Tyrophagus putrescentiae. Qu, Shao-Xuan,Hong, Xiao-Yue,Qu, Shao-Xuan,Ma, Lin,Li, Hui-Ping,Song, Jin-Di.

作者其他论文 更多>>

微信小程序