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后生动物再生大背景下的蝾螈芽基

The salamander blastema within the broader context of metazoan regeneration.

作者信息

Tajer Benjamin, Savage Aaron M, Whited Jessica L

机构信息

Department of Stem Cell and Regenerative Biology, Harvard University, Cambridge, MA, United States.

出版信息

Front Cell Dev Biol. 2023 Aug 11;11:1206157. doi: 10.3389/fcell.2023.1206157. eCollection 2023.

Abstract

Throughout the animal kingdom regenerative ability varies greatly from species to species, and even tissue to tissue within the same organism. The sheer diversity of structures and mechanisms renders a thorough comparison of molecular processes truly daunting. Are "blastemas" found in organisms as distantly related as planarians and axolotls derived from the same ancestral process, or did they arise convergently and independently? Is a mouse digit tip blastema orthologous to a salamander limb blastema? In other fields, the thorough characterization of a reference model has greatly facilitated these comparisons. For example, the amphibian Spemann-Mangold organizer has served as an amazingly useful comparative template within the field of developmental biology, allowing researchers to draw analogies between distantly related species, and developmental processes which are superficially quite different. The salamander limb blastema may serve as the best starting point for a comparative analysis of regeneration, as it has been characterized by over 200 years of research and is supported by a growing arsenal of molecular tools. The anatomical and evolutionary closeness of the salamander and human limb also add value from a translational and therapeutic standpoint. Tracing the evolutionary origins of the salamander blastema, and its relatedness to other regenerative processes throughout the animal kingdom, will both enhance our basic biological understanding of regeneration and inform our selection of regenerative model systems.

摘要

在整个动物界,再生能力因物种而异,甚至在同一生物体的不同组织之间也存在很大差异。结构和机制的巨大多样性使得对分子过程进行全面比较确实令人生畏。在诸如涡虫和蝾螈等亲缘关系甚远的生物体中发现的“芽基”是源自同一个祖先过程,还是它们是趋同且独立产生的?小鼠指尖芽基与蝾螈肢体芽基是直系同源的吗?在其他领域,对参考模型的全面表征极大地促进了这些比较。例如,两栖动物的施佩曼 - 曼戈尔德组织者在发育生物学领域已成为一个极其有用的比较模板,使研究人员能够在亲缘关系甚远的物种以及表面上差异很大的发育过程之间进行类比。蝾螈肢体芽基可能是再生比较分析的最佳起点,因为它已经历了200多年的研究,并且有越来越多的分子工具作为支撑。从转化和治疗的角度来看,蝾螈和人类肢体在解剖学和进化上的相似性也具有重要价值。追溯蝾螈芽基的进化起源及其与动物界其他再生过程的相关性,将既增强我们对再生的基础生物学理解,又为我们选择再生模型系统提供参考。

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