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Sequential segmental analysis of the crocodilian heart.鳄鱼心脏的连续节段分析
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A new hypothesis of dinosaur relationships and early dinosaur evolution.恐龙关系和早期恐龙进化的新假说。
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Darwinian evolution and cardiovascular remodeling.达尔文进化论与心血管重塑
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Morphological analysis of the hagfish heart. II. The venous pole and the pericardium.盲鳗心脏的形态学分析。II. 静脉极与心包。
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A higher level classification of all living organisms.所有生物的更高层次分类。
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The helical ventricular myocardial band during standard echocardiography: a structure-function relationship.标准超声心动图检查中的螺旋形心室心肌带:结构与功能的关系
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Heart rate reduction and longevity in mice.小鼠心率降低与寿命
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Ventricular structure-function relations in health and disease: Part I. The normal heart.健康与疾病状态下的心室结构-功能关系:第一部分。正常心脏。
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9
Is our heart a well-designed pump? The heart along animal evolution.我们的心脏是设计精良的泵吗?心脏沿着动物进化的历程。
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脊椎动物的心脏:进化视角

The vertebrate heart: an evolutionary perspective.

作者信息

Stephenson Andrea, Adams Justin W, Vaccarezza Mauro

机构信息

School of Biomedical Sciences, Faculty of Health Sciences, Curtin University, Bentley, Perth, WA, Australia.

Department of Anatomy and Developmental Biology, Faculty of Medicine, Nursing and Health Sciences, School of Biomedical Sciences, Centre for Human Anatomy Education, Monash University, Clayton, Melbourne, VIC, Australia.

出版信息

J Anat. 2017 Dec;231(6):787-797. doi: 10.1111/joa.12687. Epub 2017 Sep 14.

DOI:10.1111/joa.12687
PMID:28905992
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5696137/
Abstract

Convergence is the tendency of independent species to evolve similarly when subjected to the same environmental conditions. The primitive blueprint for the circulatory system emerged around 700-600 Mya and exhibits diverse physiological adaptations across the radiations of vertebrates (Subphylum Vertebrata, Phylum Chordata). It has evolved from the early chordate circulatory system with a single layered tube in the tunicate (Subphylum Urchordata) or an amphioxus (Subphylum Cephalochordata), to a vertebrate circulatory system with a two-chambered heart made up of one atrium and one ventricle in gnathostome fish (Infraphylum Gnathostomata), to a system with a three-chambered heart made up of two atria which maybe partially divided or completely separated in amphibian tetrapods (Class Amphibia). Subsequent tetrapods, including crocodiles and alligators (Order Crocodylia, Subclass Crocodylomorpha, Class Reptilia), birds (Subclass Aves, Class Reptilia) and mammals (Class Mammalia) evolved a four-chambered heart. The structure and function of the circulatory system of each individual holds a vital role which benefits each species specifically. The special characteristics of the four-chamber mammalian heart are highlighted by the peculiar structure of the myocardial muscle.

摘要

趋同进化是指独立物种在相同环境条件下出现相似进化的趋势。循环系统的原始蓝图大约出现在7亿至6亿年前,在脊椎动物(脊索动物门脊椎动物亚门)的辐射演化过程中展现出多样的生理适应性。它已经从早期脊索动物的循环系统进化而来,在被囊动物(尾索动物亚门)或文昌鱼(头索动物亚门)中是单层管道,到有颌鱼类(有颌下门)中由一个心房和一个心室组成的两腔心脏的脊椎动物循环系统,再到两栖四足动物(两栖纲)中由两个心房组成的三腔心脏系统,这两个心房可能部分分隔或完全分开。随后的四足动物,包括鳄鱼和短吻鳄(鳄目、鳄形亚目、爬行纲)、鸟类(鸟亚纲、爬行纲)和哺乳动物(哺乳纲)进化出了四腔心脏。每个个体的循环系统的结构和功能都起着至关重要的作用,具体有益于每个物种。四腔哺乳动物心脏的特殊特征通过心肌的独特结构得以凸显。