应用虚拟场方法识别渗透膨胀软生物组织双相超弹性模型参数

IF 1.8 3区 材料科学 Q2 MATERIALS SCIENCE, CHARACTERIZATION & TESTING Strain Pub Date : 2023-03-16 DOI:10.1111/str.12435
Ruike Shi, S. Avril, Haitian Yang, V. A. Acosta Santamaría, Yue Mei, Yiqian He
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引用次数: 0

摘要

双相超弹性模型已经在软组织中流行起来,迫切需要使用全场测量技术(如数字体积相关性)的适当识别方法。本文提出用虚拟场方法(VFM)来解决这一需求。该方法的主要优点是避免了复杂非线性有限元模型的重复求解。通过选择特殊的虚拟场,VFM方法可以提取双相介质固体部分的超弹性参数,而无需识别驱动间隙液中渗透效应的模型参数。通过三个不同的例子验证了所提出的方法:第一个和第二个例子使用模拟数据,第三个例子使用从渗透活性溶液中的猪胸主动脉降段样本中获得的实验数据。
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Adaptation of the virtual fields method for the identification of biphasic hyperelastic model parameters in soft biological tissues with osmotic swelling
Biphasic hyperelastic models have become popular for soft hydrated tissues, and there is a pressing need for appropriate identification methods using full‐field measurement techniques such as digital volume correlation. This paper proposes to address this need with the virtual fields method (VFM). The main asset of the proposed approach is that it avoids the repeated resolution of complex nonlinear finite element models. By choosing special virtual fields, the VFM approach can extract hyperelastic parameters of the solid part of the biphasic medium without resorting to identifying the model parameters driving the osmotic effects in the interstitial fluid. The proposed approach is verified and validated through three different examples: the first and second using simulated data and then the third using experimental data obtained from porcine descending thoracic aortas samples in osmotically active solution.
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来源期刊
Strain
Strain 工程技术-材料科学:表征与测试
CiteScore
4.10
自引率
4.80%
发文量
27
期刊介绍: Strain is an international journal that contains contributions from leading-edge research on the measurement of the mechanical behaviour of structures and systems. Strain only accepts contributions with sufficient novelty in the design, implementation, and/or validation of experimental methodologies to characterize materials, structures, and systems; i.e. contributions that are limited to the application of established methodologies are outside of the scope of the journal. The journal includes papers from all engineering disciplines that deal with material behaviour and degradation under load, structural design and measurement techniques. Although the thrust of the journal is experimental, numerical simulations and validation are included in the coverage. Strain welcomes papers that deal with novel work in the following areas: experimental techniques non-destructive evaluation techniques numerical analysis, simulation and validation residual stress measurement techniques design of composite structures and components impact behaviour of materials and structures signal and image processing transducer and sensor design structural health monitoring biomechanics extreme environment micro- and nano-scale testing method.
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