A Novel Device for Direct Permeation Measurements of Hydrogels and Soft Hydrated Tissues

N. A. Andarawis, Sara L. Seyhan, R. Mauck, M. Soltz, G. Ateshian, C. Hung
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引用次数: 1

Abstract

The goal of this study was to develop a system to reliably measure the intrinsic hydraulic permeability of hydrogels and soft hydrated tissues. Such a device can be used to assess the development of functional properties in tissue engineered constructs [1]. The design parameters for such a device include ease of assembly and the ability to measure hydraulic permeability over a range of specimen deformations. To meet these criteria, a device was designed that could quantify the hydraulic permeability of a sample under different levels of deformation, allowing characterization of strain-dependent effects. The device was tested on both agarose and articular cartilage specimens, yielding permeability values consistent with published data [2]. The intrinsic hydraulic permeability of a tissue is an important parameter that governs fluid exudation during deformational loading. The ability of articular cartilage, which exhibits non-linear strain dependent hydraulic permeability [3], to generate and sustain interstitial fluid pressurization is essential to its functional properties (e.g., load bearing and lubrication). This novel device allows for direct and reliable measurement of these physical properties.
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一种用于水凝胶和软水合组织直接渗透测量的新型装置
本研究的目的是开发一个系统来可靠地测量水凝胶和软水合组织的固有水力渗透性。这种装置可用于评估组织工程构建体中功能特性的发展[1]。这种装置的设计参数包括易于组装和测量试样变形范围内的水力渗透性的能力。为了满足这些标准,设计了一种装置,可以量化不同变形水平下样品的水力渗透率,从而表征应变依赖效应。该装置在琼脂糖和关节软骨标本上进行了测试,得到的渗透性值与已发表的数据一致[2]。组织的固有水力渗透性是控制变形加载过程中流体渗出的重要参数。关节软骨表现出非线性应变相关的水力渗透性[3],其产生和维持间质流体加压的能力对其功能特性(如承重和润滑)至关重要。这种新颖的装置可以直接可靠地测量这些物理性质。
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