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Editorial overview: Adaptive genomic of economically important insects 编辑概述:经济上重要昆虫的适应性基因组。
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-13 DOI: 10.1016/j.cois.2025.101386
Alberto S Corrêa , Andy P Michel , Diogo C Cabral-de-Mello
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引用次数: 0
Origin of eusociality in termites: was genetic monogamy essential? 白蚁群居性的起源:遗传一夫一妻制是必要的吗?
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-13 DOI: 10.1016/j.cois.2025.101388
Christine A Nalepa , Nathan Lo , Kiyoto Maekawa
A prevalent hypothesis is that ‘strict genetic monogamy’ was a universal prerequisite for the origin of eusociality in Hymenoptera and Isoptera. Termites, however, do not fit easily into this scenario, particularly since the sister group of termites, the wood-feeding cockroach Cryptocercus, was recently found to be socially but not genetically monogamous. Termites likely evolved from large, physically robust, obligately subsocial cockroaches in an ecological setting where nitrogen conservation was prioritized. The shift to eusociality can originate from such a starting point via sequential delegation of brood care and defensive parental duties to young alloparents and soldiers, respectively, facilitated by reallocation of available nitrogenous resources. Each social transition was dependent on the prior state, and the final step, the shift from parental defense to origination of a soldier caste, coevolved with a decrease in parental body size and cuticular investment, thus freeing nitrogen for channeling into parental reproduction and cuticular armoring of soldiers. One consequence of this reallocation of critical reserves, however, was on the mating system: the now smaller, vulnerable alates were subjected to relentless predation pressure during dispersal and colony foundation. Swarming, tandem running, hasty mate choice, and immediate and permanent sequestration can be viewed as countermeasures to this selection pressure, enforcing genetic monogamy. We propose that any genetic monogamy detected in incipient colonies of extant termites may be a consequence, rather than a cause, of the initial transition to eusociality; if so, it is a derived mating system that may be a fitness cost in termite evolution.
一个普遍的假设是,“严格的遗传一夫一妻制”是膜翅目和等翅目昆虫社会性起源的普遍先决条件。然而,白蚁并不容易符合这种情况,特别是因为白蚁的姐妹群体,食木蟑螂隐尾虫,最近被发现是社会上的,而不是基因上的一夫一妻制。白蚁可能是在一个优先考虑氮保护的生态环境中,从体型庞大、身体健壮、专性亚社会性的蟑螂进化而来的。向群居性的转变可以从这样一个起点开始,分别通过重新分配可用的氮资源,将育儿和防御性父母职责依次委托给年轻的异体父母和士兵。每个社会转变都依赖于先前的状态,最后一步,从亲代防御到士兵种姓的起源,与亲代体型和角质层投资的减少共同进化,从而释放氮用于亲代繁殖和士兵的角质层盔甲。然而,这种重新分配关键保留区的后果之一是对交配系统的影响:在分散和群体建立过程中,现在更小、更脆弱的alates受到了无情的捕食压力。群居、串联奔跑、仓促的择偶以及立即和永久的隔离可以被视为对抗这种选择压力的措施,从而加强了遗传上的一夫一妻制。我们提出,在现存白蚁的早期群体中发现的任何遗传一夫一妻制都可能是白蚁向群居性过渡的结果,而不是原因;如果是这样,这是一种衍生的交配系统,可能是白蚁进化中的适应度成本。
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引用次数: 0
Mosquito sex determination: recent advances and applications 蚊子性别测定:最新进展及应用。
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-13 DOI: 10.1016/j.cois.2025.101385
Melanie Hempel , Joseph D Warren , Jiangtao Liang, Christen Hughes, Zhijian Tu
Mosquitoes have evolved divergent sex-determining chromosomes, and they employ diverse primary signals for sex determination. As only females feed on vertebrate blood, manipulating genes involved in sex determination can facilitate genetic control measures for mosquito-borne infectious diseases, such as dengue and malaria. We highlight new advances in mosquito sex determination, describe innovative applications, and discuss relevant evolutionary insights and future directions.
蚊子进化出了不同的决定性别的染色体,它们使用不同的主要信号来决定性别。由于只有雌性以脊椎动物的血液为食,操纵与性别决定有关的基因可以促进对登革热和疟疾等蚊媒传染病的遗传控制措施。我们重点介绍了蚊子性别测定的新进展,描述了创新的应用,并讨论了相关的进化见解和未来的发展方向。
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引用次数: 0
Prospects for application of population genetics for control of tsetse flies in Africa 群体遗传学在非洲采采蝇防治中的应用前景。
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-12 DOI: 10.1016/j.cois.2025.101389
Richard Echodu , Robert Opiro , Winnie Okeyo , Rosemary Bateta , Paul O Mireji
We present information on genetic connectivity among and between tsetse fly populations, and prospects for its application in control of the flies in Africa. Connected populations pose challenges to localized vector control efforts than isolated populations. Most Palpalis group tsetse flies are generally genetically connected, while their Morsitans counterparts are isolated. Effective control strategies for connected populations should target drivers of migration between the populations. Isolated populations can be targets for eradication due to reduced risk of reinvasion. Population genetics has limited applications in assessing the performance of control efforts. There are significant gaps in the population genetics information of tsetse flies in Africa.
本文介绍了采采蝇种群间的遗传连通性及其在非洲采采蝇防治中的应用前景。与孤立人群相比,互联人群对局部病媒控制工作构成挑战。大多数Palpalis组采采蝇通常在基因上有联系,而它们的Morsitans组采采蝇则是孤立的。连通人群的有效控制策略应该针对人群之间迁移的驱动因素。由于再入侵的风险降低,孤立的种群可以成为根除的目标。群体遗传学在评估控制效果方面的应用有限。非洲采采蝇种群遗传信息存在明显空白。
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引用次数: 0
Genomics of urban adaptation and exaptation in mosquitoes and consequences for vectorial capacity 蚊子对城市适应和排斥的基因组学及其媒介能力的影响。
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-08 DOI: 10.1016/j.cois.2025.101384
James E Fifer , Michael Amoa-Bosompem , Dvorah Nelson, Eleanor R Terner, Amel J Clifford, Skylar Tan, Noah H Rose
As urbanization accelerates around the world, mosquitoes that are capable of surviving and thriving in urban habitats increasingly spread mosquito-borne diseases. Across the >3500 known species of mosquitoes, only a few rapidly adapted to the novel (on an evolutionary timescale) urban environments. In this review, we highlight several emerging themes and testable hypotheses from recent literature. First, apparent urban adaptations can be roughly divided into newer adaptations arising in an urban context and exaptations — traits that evolved in a different context, before modern urbanization. Second, variants involved in urban adaptation are often partitioned among species complexes and cryptic lineages, and the history of gene flow–selection balance may be related to the evolution of compact genomic architectures that could facilitate rapid urban adaptation. Third, urban adaptation often has consequences for vectorial capacity — the ability of mosquitoes to serve as effective vectors of a particular pathogen — though the selective drivers and genetic mechanisms underlying these differences are incompletely understood. To fully understand urban adaptation in mosquitoes, we advocate for a coordinated effort to increase linkages between evolutionary ecology, population genomics, and medical entomology research. We discuss the two traits for which all three perspectives are the most developed — host preference and insecticide resistance — before reviewing several other less studied traits.
随着世界各地城市化的加速,能够在城市栖息地生存和繁衍的蚊子越来越多地传播蚊媒疾病。在已知的近3500种蚊子中,只有少数几种迅速适应了新的(在进化时间尺度上)城市环境。在这篇综述中,我们从最近的文献中强调了几个新兴的主题和可检验的假设。首先,明显的城市适应可以大致分为在城市环境中产生的新适应和在现代城市化之前在不同环境中进化的特征。其次,参与城市适应的变异通常在物种复合体和隐谱系中被划分,基因流选择平衡的历史可能与紧凑基因组结构的进化有关,这种结构可以促进快速的城市适应。第三,城市适应通常对媒介能力(蚊子作为特定病原体的有效媒介的能力)产生影响,尽管这些差异背后的选择性驱动因素和遗传机制尚不完全清楚。为了充分了解蚊子的城市适应性,我们提倡协调努力,增加进化生态学、种群基因组学和医学昆虫学研究之间的联系。在回顾其他几个研究较少的性状之前,我们讨论了所有三种观点都最发达的两个性状-寄主偏好和杀虫剂抗性。
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引用次数: 0
Evolution of gene regulatory networks in insects 昆虫基因调控网络的进化
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-05-08 DOI: 10.1016/j.cois.2025.101365
Takumi Karasawa , Shigeyuki Koshikawa
Changes in gene regulatory networks (GRNs) underlying the evolution of traits have been intensively studied, with insects providing excellent model cases. In studies using Drosophila, butterflies, and other insects, several well-known cases have shown that changes in the cis-regulatory region of a gene controlling a trait can result in the co-option of the gene for a role different from that in its original developmental context. When the expression of a regulatory gene that controls the expression of multiple downstream genes is altered, the expression of these downstream genes changes accordingly, representing the simplest form of GRN co-option. Many studies have explored the applicability of this model to the acquisition of new traits, yielding substantial insights. However, no study has yet comprehensively elucidated the co-option of a GRN or the evolution of a network architecture, including associated genes and their regulatory relationships. In the near future, the use of single-cell multiomics and machine learning will allow for larger-scale data analysis, leading to a better understanding of the evolution of traits through the evolution of GRNs.
基因调控网络(GRNs)在性状进化中的变化已被深入研究,昆虫提供了极好的模型案例。在对果蝇、蝴蝶和其他昆虫的研究中,几个众所周知的案例表明,控制性状的基因顺式调控区域的变化可以导致基因的共同选择,其作用与其原始发育环境不同。当一个控制多个下游基因表达的调控基因的表达发生改变时,这些下游基因的表达也会发生相应的变化,这是GRN共选择的最简单形式。许多研究探索了该模型在获得新特征方面的适用性,并产生了实质性的见解。然而,目前还没有研究全面阐明GRN的共同选择或网络结构的进化,包括相关基因及其调控关系。在不久的将来,单细胞多组学和机器学习的使用将允许更大规模的数据分析,从而通过grn的进化更好地理解性状的进化。
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引用次数: 0
Biogenic amines in honey bee cognition: neurochemical pathways and stress impacts 蜜蜂认知中的生物胺:神经化学途径和应激影响
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-04-29 DOI: 10.1016/j.cois.2025.101376
Muhammad Fahad Raza, Wenfeng Li
Honey bees, as indispensable pollinators, rely on sophisticated neuromodulatory networks to regulate learning, memory, and social behaviors, all essential for colony function, ecosystem stability, and global agricultural systems. Biogenic amines octopamine, dopamine, serotonin, and tyramine are key modulators of these cognitive and behavioral processes, regulating foraging efficiency, navigational precision, and division of labor. However, we argue that anthropogenic stressors, including pesticides, pollutants, heavy metals, and microbiome dysbiosis, disrupt aminergic pathways by impairing neurotransmitter synthesis and neuronal signaling, leading to maladaptive behaviors and colony collapse. Recent discoveries expand this paradigm, revealing those biogenic amines in floral nectar act as exogenous neurochemicals, potentially altering pollinator behavior; however, their interaction with agrochemicals remains underexplored. While most studies focus on Apis mellifera, we caution that cautious extrapolation to wild and solitary bees is critical, given the evolutionary conservation of aminergic signaling across insect taxa. Cognitive deficits observed in managed honeybees likely extend to wild pollinators, threatening pollination network resilience and food security. To address these gaps, we advocate for CRISPR-based neurogenetic tools and multi-omics approaches to dissect stress susceptibility and biogenic amine (BA) regulation. Integrating neurobiology, ecotoxicology, and conservation science is imperative to develop precision strategies that mitigate anthropogenic threats, safeguard biodiversity, and stabilize global agriculture.
蜜蜂作为不可缺少的传粉者,依靠复杂的神经调节网络来调节学习、记忆和社会行为,这些对群体功能、生态系统稳定和全球农业系统都至关重要。生物胺:章鱼胺、多巴胺、血清素和酪胺是这些认知和行为过程的关键调节剂,调节觅食效率、导航精度和劳动分工。然而,我们认为人为压力源,包括农药、污染物、重金属和微生物群落失调,通过损害神经递质合成和神经元信号传导来破坏胺能通路,导致适应不良行为和群体崩溃。最近的发现扩展了这一范式,揭示了花蜜中的生物胺作为外源性神经化学物质,可能改变传粉者的行为;然而,它们与农用化学品的相互作用仍未得到充分研究。虽然大多数研究集中在蜜蜂,但我们警告说,考虑到昆虫类群中胺能信号的进化保护,对野生和独居蜜蜂的谨慎外推是至关重要的。在管理蜜蜂中观察到的认知缺陷可能扩展到野生传粉媒介,威胁传粉网络的弹性和粮食安全。为了解决这些空白,我们提倡基于crispr的神经遗传学工具和多组学方法来解剖应激易感性和生物胺(BA)调节。整合神经生物学、生态毒理学和保护科学是制定精确策略以减轻人为威胁、保护生物多样性和稳定全球农业的必要条件。
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引用次数: 0
Sex determination in moths and butterflies: Masculinizer as key player 飞蛾和蝴蝶的性别决定:雄性化是关键角色
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-04-17 DOI: 10.1016/j.cois.2025.101375
Arjen E van‘t Hof , Atsuo Yoshido , František Marec
Knowledge about sex determination in Lepidoptera is starting to unfold just over a decade after the discovery of the primary sex determination trigger in the silkworm Bombyx mori. The silkworm has a W-dominant sex determination mechanism with a PIWI-interacting RNA (piRNA) precursor gene called Feminizer (Fem) as the primary trigger. The emerging view is that the silkworm is unsuitable to predict primary triggers in other Lepidoptera species, despite its role as model organism. However, the Z-linked gene named Masculinizer (Masc), which is targeted by Fem piRNA in the silkworm, plays a key role in sex determination in all species studied so far. This conserved role of Masc at the beginning of the sex determination cascade differs from what is known in other insects, where the cascade is initially diverse and becomes increasingly conserved towards the end, where doublesex (dsx) is alternatively spliced into a female or male variant. Sex-specific dsx splicing is also conserved in Lepidoptera, while the other genes which make up the sex-determining cascade are yet to be revealed in full detail. The sex determination mechanisms in two species are highlighted because, unlike the silkworm, they do not rely on a primary trigger from the W chromosome. The moth Samia cynthia ricini uses the ratio of Z chromosomes to autosome sets to determine sex. The butterfly Bicyclus anynana has a sex determination more similar to the honey bee than to the silkworm, with the zygosity of a hypervariable region of Masc determining whether individuals become female or male.
关于鳞翅目性别决定的知识在发现家蚕性别决定的主要触发因素十多年后才开始展开。家蚕具有w显性的性别决定机制,piwi相互作用RNA (piRNA)前体基因雌性化因子(Feminizer, Fem)是主要触发因子。新出现的观点是,尽管家蚕是模式生物,但它不适合预测其他鳞翅目物种的初级触发因素。然而,作为Fem piRNA在家蚕中的靶点,名为Masculinizer (Masc)的z连锁基因在迄今所研究的所有物种的性别决定中都起着关键作用。Masc在性别决定级联开始时的保守作用与已知的其他昆虫不同,在其他昆虫中,级联最初是多样化的,到最后变得越来越保守,双性(dsx)被交替地拼接成雌性或雄性变体。性别特异性的dsx剪接在鳞翅目中也是保守的,而其他构成性别决定级联的基因尚未被详细揭示。这两个物种的性别决定机制之所以受到重视,是因为与蚕不同,它们不依赖于来自W染色体的主要触发因素。Samia cynthia ricini蛾使用Z染色体与常染色体组的比例来确定性别。双环蝶(Bicyclus anynana)的性别决定更类似于蜜蜂,而不是蚕,它的一个高可变区域的合子性决定了个体是雌性还是雄性。
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引用次数: 0
The relevance of goal directed movement for insect pest control 目标导向运动与害虫防治的相关性
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-04-08 DOI: 10.1016/j.cois.2025.101374
Ajay Narendra , Dinesh Rao
Efficient locomotion is a fundamental feature and requisite of all insects. Some insects, such as mosquito larvae, travel just a few centimetres, whereas others, such as Bogong moths, migrate over several hundreds of kilometers. Some insects traverse in air, others in water and some on ground. For goal-directed movement, irrespective of body size, the scale at which insects move, or the medium in which they travel, the principles of navigation remain the same. In this article, we discuss some of the visual navigational tasks that insects carry out and highlight the recent techniques developed to reconstruct visual information and track animals with exceptional accuracy. We emphasise the need to understand the visual ecology of insects and to adopt tracking tools and methods to control the movement and spread of insect pests.
高效的运动是所有昆虫的基本特征和必要条件。一些昆虫,如蚊子幼虫,只移动几厘米,而另一些昆虫,如博贡蛾,可以迁移几百公里。有些昆虫在空中飞行,有些在水中,有些在地面上。对于以目标为导向的运动,无论昆虫的体型大小、运动的规模或运动的媒介如何,它们的导航原理都是一样的。在本文中,我们讨论了昆虫进行的一些视觉导航任务,并重点介绍了最近开发的重建视觉信息和精确跟踪动物的技术。我们强调有必要了解昆虫的视觉生态,并采用跟踪工具和方法来控制害虫的移动和传播。
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引用次数: 0
Synthetic homing endonuclease gene drives to revolutionise Aedes aegypti biocontrol — game changer or pipe dream? 合成归巢内切酶基因驱动彻底改变埃及伊蚊的生物防治——游戏规则改变者还是白日梦?
IF 5.8 1区 农林科学 Q1 BIOLOGY Pub Date : 2025-04-08 DOI: 10.1016/j.cois.2025.101373
Joshua XD Ang , Sebald AN Verkuijl , Michelle AE Anderson , Luke Alphey
The increasing burden of Aedes aegypti–borne diseases, particularly dengue, is a growing global concern, further exacerbated by climate change. Current control strategies have proven insufficient, necessitating novel approaches. Synthetic homing endonuclease gene (sHEG) drives represent one of the few emerging technologies with the potential to offer a cost-effective and equitable solution to this escalating public health challenge. However, despite multiple attempts, the homing efficiencies of Ae. aegypti sHEG systems lag behind those achieved in Anopheles mosquitoes. We discuss key insights from efforts to develop sHEGs in Ae. aegypti and highlight critical factors that may unlock further advances in this species.
埃及伊蚊传播的疾病,特别是登革热的负担日益加重,是一个日益引起全球关注的问题,气候变化进一步加剧了这一问题。目前的控制策略已被证明是不够的,需要新的方法。合成归巢内切酶基因(sHEG)驱动是为数不多的新兴技术之一,有可能为这一不断升级的公共卫生挑战提供具有成本效益和公平的解决方案。然而,尽管多次尝试,Ae的归巢效率。埃及伊蚊的sHEG系统落后于按蚊的sHEG系统。我们讨论了在美国发展sheg的关键见解。并强调可能开启该物种进一步发展的关键因素。
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引用次数: 0
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Current opinion in insect science
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