Developing cardiac biomechanical models beyond the clinic: modeling stressors of daily life.

IF 2.7 3区 医学 Q2 BIOPHYSICS
Alexandre Lewalle, Tiffany M G Baptiste, Rosie K Barrows, Ludovica Cicci, Cesare Corrado, Angela W C Lee, Cristobal Rodero, José Alonso Solís-Lemus, Marina Strocchi, Steven A Niederer
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引用次数: 0

Abstract

There is growing motivation to exploit computational biomechanical modeling of the heart as a predictive tool to support clinical diagnoses and therapies. Existing patient-specific cardiac models often rely on data collected under highly standardized conditions in hospitals. However, disease progression and therapy responses often depend on stressors, encountered in daily life, that cannot be captured in a traditional clinical setting. To achieve clinical translation, existing modeling frameworks must be refined and extended to include such influences. The "digital twin" concept, in which models of specific systems are continually updated with new data, is a promising avenue for integrating and interpreting these data streams. However, this endeavor calls for novel approaches to model development and data acquisition and integration. We review modeling approaches addressing specific stressor types (caffeine, exercise, sex-dependent factors, sleep, the environment) to identify knowledge gaps, assess emerging technical challenges, and suggest potential model developments to extend the scope and reach of biomedical cardiac simulations.

发展临床以外的心脏生物力学模型:模拟日常生活的压力源。
利用心脏的计算生物力学建模作为一种预测工具来支持临床诊断和治疗的动机越来越大。现有的患者特异性心脏模型通常依赖于在医院高度标准化的条件下收集的数据。然而,疾病进展和治疗反应往往取决于日常生活中遇到的压力源,而传统的临床环境无法捕捉到这些压力源。为了实现临床翻译,现有的建模框架必须加以改进和扩展,以包括这些影响。“数字孪生”概念是整合和解释这些数据流的一个很有前途的途径,在这个概念中,特定系统的模型不断地用新数据更新。然而,这种努力需要模型开发和数据获取与集成的新方法。我们回顾了针对特定压力源类型(咖啡因、运动、性别依赖因素、睡眠、环境)的建模方法,以识别知识差距,评估新出现的技术挑战,并提出潜在的模型开发建议,以扩大生物医学心脏模拟的范围和范围。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Biomechanics and Modeling in Mechanobiology
Biomechanics and Modeling in Mechanobiology 工程技术-工程:生物医学
CiteScore
7.10
自引率
8.60%
发文量
119
审稿时长
6 months
期刊介绍: Mechanics regulates biological processes at the molecular, cellular, tissue, organ, and organism levels. A goal of this journal is to promote basic and applied research that integrates the expanding knowledge-bases in the allied fields of biomechanics and mechanobiology. Approaches may be experimental, theoretical, or computational; they may address phenomena at the nano, micro, or macrolevels. Of particular interest are investigations that (1) quantify the mechanical environment in which cells and matrix function in health, disease, or injury, (2) identify and quantify mechanosensitive responses and their mechanisms, (3) detail inter-relations between mechanics and biological processes such as growth, remodeling, adaptation, and repair, and (4) report discoveries that advance therapeutic and diagnostic procedures. Especially encouraged are analytical and computational models based on solid mechanics, fluid mechanics, or thermomechanics, and their interactions; also encouraged are reports of new experimental methods that expand measurement capabilities and new mathematical methods that facilitate analysis.
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