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海星(棘皮动物,海星纲)自切面可变性胶原组织的形态和生理方面:棘皮动物典范。

Morphological and Physiological Aspects of Mutable Collagenous Tissue at the Autotomy Plane of the Starfish L. (Echinodermata, Asteroidea): An Echinoderm Paradigm.

机构信息

School of Biodiversity, One Health and Veterinary Medicine, University of Glasgow, Glasgow G12 8QQ, UK.

Department of Environmental Science and Policy, University of Milan, 20133 Milan, Italy.

出版信息

Mar Drugs. 2023 Feb 22;21(3):138. doi: 10.3390/md21030138.

Abstract

The mutable collagenous tissue (MCT) of echinoderms has the capacity to undergo changes in its tensile properties within a timescale of seconds under the control of the nervous system. All echinoderm autotomy (defensive self-detachment) mechanisms depend on the extreme destabilisation of mutable collagenous structures at the plane of separation. This review illustrates the role of MCT in autotomy by bringing together previously published and new information on the basal arm autotomy plane of the starfish L. It focuses on the MCT components of breakage zones in the dorsolateral and ambulacral regions of the body wall, and details data on their structural organisation and physiology. Information is also provided on the extrinsic stomach retractor apparatus whose involvement in autotomy has not been previously recognised. We show that the arm autotomy plane of is a tractable model system for addressing outstanding problems in MCT biology. It is amenable to in vitro pharmacological investigations using isolated preparations and provides an opportunity for the application of comparative proteomic analysis and other "-omics" methods which are aimed at the molecular profiling of different mechanical states and characterising effector cell functions.

摘要

棘皮动物的可变性胶原组织 (MCT) 在神经系统的控制下,具有在几秒钟内改变其拉伸性能的能力。所有棘皮动物的自切(防御性自我分离)机制都依赖于在分离面极不稳定的可变性胶原结构。通过汇集关于海星 L 的基础臂自切平面的先前发表和新信息,本综述说明了 MCT 在自切中的作用。它侧重于身体壁的背外侧和腕足区域的断裂区的 MCT 成分,并详细介绍了其结构组织和生理学的数据。还提供了有关外在胃牵开器装置的信息,其在自切中的参与以前未被认识到。我们表明, 的臂自切平面是解决 MCT 生物学中未解决问题的可行模型系统。它可以使用分离的制剂进行体外药理学研究,并为应用比较蛋白质组学分析和其他“-omics”方法提供了机会,这些方法旨在对不同机械状态进行分子分析并表征效应细胞功能。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/5289/10058165/aefb1351bc55/marinedrugs-21-00138-g004.jpg

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