黑腹果蝇的触角发育、功能及其对生理和行为的直接或间接影响

IF 1.6 4区 农林科学 Q2 ENTOMOLOGY Physiological Entomology Pub Date : 2024-06-30 DOI:10.1111/phen.12457
Gyanaseni Dhar, Srirupa Basu, Debabrat Sabat, Monalisa Mishra
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引用次数: 0

摘要

感官机械传导是将物理刺激转化为神经电受体电位的过程,对果蝇至关重要。成年果蝇复杂行为的几乎所有方面都涉及本体感觉、听觉、触觉、嗅觉、平衡觉和重吸收觉。机械传导是由组成触角的各种特化感觉器和感觉神经元介导的。黑腹果蝇的眼睛和触角由大约 23 个细胞组成,这些细胞在胚胎发育过程中被分离出来,在三个幼虫阶段不断分裂,形成一个上皮囊,称为眼-触角显像盘。在幼虫后期和蛹的发育过程中,这种上皮的前叶(称为触角盘)产生了触角(一个有组织的三方结构),而后叶(称为眼盘)则产生了眼睛。触角的发育是一个复杂而错综复杂的过程,依赖于众多基因的相互作用。每个参与其中的基因都对调控网络做出了贡献,该网络控制着触角内特定结构的形成、分化和模式化,确保其正常功能。因此,任何基因的异常表达或突变都会导致天线缺陷。这种缺陷表现为触角结构导致功能丧失,包括生物体内发现的行为缺陷。脊椎动物中也有类似的听觉结构-功能关系与行为缺陷的报道。与基因相关的一些行为缺陷在脊椎动物和果蝇中都是保守的。因此,行为测定是研究与触角相关的各种基因功能的一种适应性方法。在这里,机械感觉神经元的基因调控与生物体的行为之间建立了重要的关系。本综述概述了触角的发育、功能以及用于研究果蝇触角相关机械感觉行为的几种方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Antenna development, function and its direct or indirect impact on physiology and behaviour of Drosophila melanogaster

Sensory mechanotransduction is the process of deciphering physical stimuli into neural electrical receptor potentials, essential to Drosophila, the fruit fly. Nearly every aspect of an adult Drosophila intricate behavioural repertoire that involves the senses of proprioception, hearing, touch, olfaction, balancing and graviception. Mechanotransduction are mediated by a wide variety of specialized sensilla and sensory neurons that comprise the antenna. The eye and antenna of Drosophila melanogaster are derived from a cluster of approximately 23 cells that are set aside during embryonic development and are constantly divided during the three larval stages, organizing into an epithelial sac known as the eye-antennal imaginal disc. During late larval and pupal development, the forward lobe of this epithelium, known as the antennal disc, gives rise to the antenna (an organized tripartite structure), whereas the posterior lobe, known as the eye disc, gives rise to the eye. The development of the antenna is a complex and intricate process that relies on the interplay of numerous genes. Each gene involved contributes to the regulatory network that governs the formation, differentiation, and patterning of specific structures within the antenna, ensuring its proper functionality. Thus, aberrant expression or mutation of any gene results in a faulty antenna. The defectiveness appears in terms of antennal structure leading to loss of function including defective behaviour found in an organism. A similar kind of structure–function relation of hearing with a behavioural defect has been reported in vertebrates. Some of the behavioural defects associated with genes are conserved in both vertebrates and Drosophila. Thus, a behavioural assay is an adaptable approach to studying the functionality of various genes associated with the antennae. Here a crucial relationship is established between the genetic regulation of mechanosensory neurons and an organism's behaviour. The current review summarizes antennae development, function and several methods used to study the mechanosensory behaviour associated with Drosophila antennae.

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来源期刊
Physiological Entomology
Physiological Entomology 生物-昆虫学
CiteScore
2.80
自引率
6.70%
发文量
21
审稿时长
>12 weeks
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
期刊最新文献
Issue Information How insects work—Linking genotype to phenotype Issue Information Efficacy of sugar-protein non-membranous dietary system for diapause egg production in Aedes albopictus mosquitoes under short-day conditions Response of fruit fly (Drosophila pseudoobscura) to diet manipulation of nutrient density
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