建立协调的肌肉骨骼系统:肌肉收缩时骨骼发育的可塑性。

4区 生物学 Q3 Medicine Advances in Anatomy Embryology and Cell Biology Pub Date : 2023-01-01 DOI:10.1007/978-3-031-38215-4_4
Paula Murphy, Rebecca A Rolfe
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引用次数: 0

摘要

骨骼肌组织和骨骼的软骨、骨骼和其他结缔组织密切协调。人体每一块骨头的形状、大小和结构都是通过肌肉收缩产生的动态物理刺激塑造的,从早期发育开始,随着第一个胚胎运动的开始,到后来的生活中,通过修复和重塑。肌肉运动在发育过程中的重要性体现在先天性异常中,婴儿在子宫内运动减少会出现一系列骨骼问题,包括暂时的骨质脆性和关节发育不良。各种动物模型,利用不同的固定场景,已经证明了依赖于运动的机械刺激的精确时间和事件。本章列出了骨骼系统依赖肌肉运动的证据,这些证据主要来自小鼠和鸡的固定胚胎,显示了骨骼发育的许多方面受到影响。影响可见于关节发育、骨化、骨骼雏形和肌腱的大小和形状,包括受损的机械功能。骨骼系统对肌肉收缩的巨大可塑性是建立一个反应灵敏的功能系统的关键因素。这项工作的见解对我们理解形态进化,特别是新结构出现的挑战性概念具有重要意义。它还为子宫运动减少的婴儿提供了物理治疗的潜力,并增强了我们对骨骼组织分化的细胞和分子机制的理解,具有为再生治疗提供信息的潜力。
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Building a Co-ordinated Musculoskeletal System: The Plasticity of the Developing Skeleton in Response to Muscle Contractions.

The skeletal musculature and the cartilage, bone and other connective tissues of the skeleton are intimately co-ordinated. The shape, size and structure of each bone in the body is sculpted through dynamic physical stimuli generated by muscle contraction, from early development, with onset of the first embryo movements, and through repair and remodelling in later life. The importance of muscle movement during development is shown by congenital abnormalities where infants that experience reduced movement in the uterus present a sequence of skeletal issues including temporary brittle bones and joint dysplasia. A variety of animal models, utilising different immobilisation scenarios, have demonstrated the precise timing and events that are dependent on mechanical stimulation from movement. This chapter lays out the evidence for skeletal system dependence on muscle movement, gleaned largely from mouse and chick immobilised embryos, showing the many aspects of skeletal development affected. Effects are seen in joint development, ossification, the size and shape of skeletal rudiments and tendons, including compromised mechanical function. The enormous plasticity of the skeletal system in response to muscle contraction is a key factor in building a responsive, functional system. Insights from this work have implications for our understanding of morphological evolution, particularly the challenging concept of emergence of new structures. It is also providing insight for the potential of physical therapy for infants suffering the effects of reduced uterine movement and is enhancing our understanding of the cellular and molecular mechanisms involved in skeletal tissue differentiation, with potential for informing regenerative therapies.

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期刊介绍: "Advances in Anatomy, Embryology and Cell Biology" presents critical reviews on all topical fields of normal and experimental anatomy including cell biology. The multi-perspective presentation of morphological aspects of basic biological phenomen in the human constitutes the main focus of the series. The contributions re-evaluate the latest findings and show ways for further research.
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