反向动力化:斯蒂芬·佩伦应变理论的现代视角。

IF 3.1 3区 医学 Q3 CELL & TISSUE ENGINEERING
V Glatt, C H Evans, K Tetsworth
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引用次数: 11

摘要

本综述承认Stephan Perren的应变理论的巨大影响,考虑到Roux和Pauwels的早期贡献。然后,通过研究反向动力化的概念如何在现代背景下扩展Perren的理论,它提供了进一步的见解。这种更现代的理论的一个关键因素是,它在骨愈合的不同时间点引入了可变的机械条件,从而打开了通过力学操纵生物学以达到预期临床结果的可能性。讨论的重点是通过积极控制愈合过程中的机械环境,在优化和加速骨再生方面取得的最新进展。反向动力利用非常具体的机械操作方案,条件最初灵活,以鼓励和加速早期愈伤组织的形成。一旦骨痂形成,机械条件被有意地改变,以创造一个刚性环境,在这个环境下,软骨痂迅速转化为硬骨痂,桥接骨折部位,导致更快速的愈合。相关文献,主要是动物研究,被调查以提供充足的证据来支持反向动力的有效性。通过提供Stephan Perren应变理论的现代观点,反向动力可能是在治疗急性骨折、截骨术、骨不连和其他需要再生骨的情况下,打破平衡、支持更快速、更可靠的愈合的关键。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Reverse dynamisation: a modern perspective on Stephan Perren's strain theory.

The present review acknowledges the tremendous impact of Stephan Perren's strain theory, considered with respect to the earlier contributions of Roux and Pauwels. Then, it provides further insight by examining how the concept of reverse dynamisation extended Perren's theory within a modern context. A key factor of this more contemporary theory is that it introduces variable mechanical conditions at different time points during bone healing, opening the possibility of manipulating biology through mechanics to achieve the desired clinical outcome. The discussion focusses on the current state of the art and the most recent advances made towards optimising and accelerating bone regeneration, by actively controlling the mechanical environment as healing progresses. Reverse dynamisation utilises a very specific mechanical manipulation regimen, with conditions initially flexible to encourage and expedite early callus formation. Once callus has formed, the mechanical conditions are intentionally modified to create a rigid environment under which the soft callus is quickly converted to hard callus, bridging the fracture site and leading to a more rapid union. The relevant literature, principally animal studies, was surveyed to provide ample evidence in support of the effectiveness of reverse dynamisation. By providing a modern perspective on Stephan Perren's strain theory, reverse dynamisation perhaps holds the key to tipping the balance in favour of a more rapid and reliable union when treating acute fractures, osteotomies, non-unions and other circumstances where it is necessary to regenerate bone.

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来源期刊
European cells & materials
European cells & materials 生物-材料科学:生物材料
CiteScore
6.00
自引率
6.50%
发文量
55
审稿时长
1.5 months
期刊介绍: eCM provides an interdisciplinary forum for publication of preclinical research in the musculoskeletal field (Trauma, Maxillofacial (including dental), Spine and Orthopaedics). The clinical relevance of the work must be briefly mentioned within the abstract, and in more detail in the paper. Poor abstracts which do not concisely cover the paper contents will not be sent for review. Incremental steps in research will not be entertained by eCM journal.Cross-disciplinary papers that go across our scope areas are welcomed.
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