Institute of Continuum Mechanics, Leibniz Universität Hannover, An der Universität 1, 30823 Garbsen, Germany.
Department of Civil Engineering and Computer Science, University of Rome "Tor Vergata" via del Politecnico 1, 00133 Rome, Italy.
Curr Pharm Des. 2021;27(16):1904-1917. doi: 10.2174/1381612826666200728145752.
This review aims to highlight urgent priorities for the computational biomechanics community in the framework of mechano-chemo-biological models. Recent approaches, promising directions and open challenges on the computational modelling of arterial tissues in health and disease are introduced and investigated, together with in silico approaches for the analysis of drug-eluting stents that promote pharmacological-induced healing. The paper addresses a number of chemo-biological phenomena that are generally neglected in biomechanical engineering models but are most likely instrumental for the onset and the progression of arterial diseases. An interdisciplinary effort is thus encouraged for providing the tools for an effective in silico insight into medical problems. An integrated mechano-chemo-biological perspective is believed to be a fundamental missing piece for crossing the bridge between computational engineering and life sciences, and for bringing computational biomechanics into medical research and clinical practice.
本文旨在突出机械化学生物模型框架下计算生物力学领域的当务之急。文中介绍并研究了动脉组织在健康和疾病中的计算建模的最新方法、有前景的方向和开放挑战,以及促进药物洗脱支架的药理学诱导愈合的计算分析方法。本文涉及许多生物力学模型中通常被忽视但很可能对动脉疾病的发生和发展起作用的化学生物学现象。因此,鼓励跨学科努力,为有效进行医学问题的计算研究提供工具。机械化学生物综合观点被认为是计算工程与生命科学之间架起桥梁的基本缺失环节,也是将计算生物力学引入医学研究和临床实践的关键。