Synthetic hydrogels support robust and reproducible cardiomyocyte differentiation†

IF 5.8 3区 医学 Q1 MATERIALS SCIENCE, BIOMATERIALS
Margot J. Amitrano, Mina Cho, Eva M. Coughlin, Sean P. Palecek and William L. Murphy
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引用次数: 0

Abstract

Cardiomyocyte manufacturing from human pluripotent stem cells is limited by the variability of differentiation efficiencies, partly attributed to the widespread use of the tumor-derived substrate Matrigel. Here, we describe a screening approach to identify fully-defined synthetic PEG hydrogels that support iPSC-derived cardiac progenitor cell (iPSC-CPC) adhesion, survival, and differentiation into iPSC-derived cardiomyocytes (iPSC-CMs). Our PEG hydrogels supported superior iPSC-CM differentiation efficiency, with a 24% increase in cTnT expression, and greater reproducibility when compared to cells cultured on Matrigel. By combining our 5-level, 3-variable full factorial screening approach with multi-variate analysis, we showed that all substrate variables manipulated here (adhesion ligand type/concentration, stiffness) had a significant influence on iPSC-CPC confluency and that iPSC-CM differentiation was significantly influenced by adhesion ligands. These results highlight the benefit of synthetic, tunable cell culture substrates and multi-variate screening studies to identify substrate formulations for a targeted cell behavior.

Abstract Image

合成水凝胶支持稳健和可复制的心肌细胞分化。
人类多能干细胞制造心肌细胞受到分化效率可变性的限制,部分归因于肿瘤衍生基质基质的广泛使用。在这里,我们描述了一种筛选方法来鉴定完全定义的合成PEG水凝胶,这些水凝胶支持ipsc衍生的心脏祖细胞(iPSC-CPC)的粘附、存活和分化为ipsc衍生的心肌细胞(iPSC-CMs)。我们的PEG水凝胶支持卓越的iPSC-CM分化效率,与在Matrigel上培养的细胞相比,cTnT表达增加24%,并且具有更高的可重复性。通过将我们的5水平,3变量全因子筛选方法与多变量分析相结合,我们发现这里操作的所有底物变量(粘附配体类型/浓度,刚度)对iPSC-CPC融合度有显著影响,并且iPSC-CM分化受粘附配体的显著影响。这些结果强调了合成的、可调的细胞培养底物和多变量筛选研究的好处,以确定目标细胞行为的底物配方。
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来源期刊
Biomaterials Science
Biomaterials Science MATERIALS SCIENCE, BIOMATERIALS-
CiteScore
11.50
自引率
4.50%
发文量
556
期刊介绍: Biomaterials Science is an international high impact journal exploring the science of biomaterials and their translation towards clinical use. Its scope encompasses new concepts in biomaterials design, studies into the interaction of biomaterials with the body, and the use of materials to answer fundamental biological questions.
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