角质层硬化系统在昆虫进化和地球化中的可能贡献的生态进化意义

IF 1.6 4区 农林科学 Q2 ENTOMOLOGY Physiological Entomology Pub Date : 2023-04-17 DOI:10.1111/phen.12406
Tsunaki Asano, Kosei Hashimoto, R. Craig Everroad
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引用次数: 0

摘要

此前,我们提出了昆虫在进化过程中如何适应陆地环境的一个方面。该假说基于一种理论,即昆虫已经进化出一个由昆虫特异性酶介导的昆虫特异性角质层形成系统。这种酶,多铜氧化酶-2(MCO2),利用分子氧作为底物电子的受体催化儿茶酚胺的氧化。这种MCO2介导的系统的一个潜在优势是利用大气中丰富的分子氧,这与利用钙离子的甲壳类动物(昆虫的近亲)的情况不同。钙离子的积累会导致体重增加,但没有钙化的轻质角质层可能是Metazoa历史上昆虫首次进化飞行的关键因素。我们的理论也为一个长期存在的问题提供了一个简单的解释,即为什么昆虫在海洋环境中如此罕见。在以前的综述中,我们主要关注节肢动物角质层中发生的生物化学过程的细节,但这里只提取了我们理论的精髓,并通过添加的新信息进行了简要总结。
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Eco-evolutionary implications for a possible contribution of cuticle hardening system in insect evolution and terrestrialisation

Previously we proposed one aspect of how insects could adapt to terrestrial environments during their evolution. The hypothesis is based on a theory that insects have evolved an insect-specific system for cuticle formation mediated by an insect-specific enzyme. This enzyme, multicopper oxidase-2 (MCO2), catalyses the oxidation of catecholamines using molecular oxygen as the acceptor of electrons from the substrates. A potential advantage of this MCO2-mediated system is the utilization of molecular oxygen abundant in the atmosphere, which is different from the case in crustaceans (close relatives of insects) that utilize calcium ions. Accumulation of calcium ions leads to an increase in weight, but the lightweight cuticle without calcification might have been a critical factor enabling insects to evolve flight first in the history of Metazoa. Our theory also provides a simple explanation to a long-standing question of why insects are so rare in marine environments. In previous reviews, we have mainly focused on the details of the biochemical processes occurring in arthropod cuticles, but here only the essence of our theory is extracted and briefly summarized with newly added information.

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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
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