Martinet Alice, Miebach Lea, Weltmann Klaus-Dieter, Emmert Steffen, Bekeschus Sander
Department of Dermatology and Venerology, Rostock University Medical Center, Strempelstr. 13, 18057, Rostock, Germany.
ZIK plasmatis, Leibniz Institute for Plasma Science and Technology (INP), Felix-Hausdorff-Str. 2, 17489, Greifswald, Germany.
Small. 2025 Mar;21(9):e2403856. doi: 10.1002/smll.202403856. Epub 2025 Feb 5.
Biomimetic hydrogels enable biochemical, cell biology, and tissue-like studies in the third dimension. Smart hydrogels are also frequently used in tissue engineering and as drug carriers for intra- or extracutaneous regenerative medicine. They have also been studied in bio-sensor development, 3D cell culture, and organoid growth optimization. Yet, many hydrogel types, adjuvant components, and cross-linking methods have emerged over decades, diversifying and complexifying such studies. Here, an evaluative overview is provided, mapping potential applications to the corresponding hydrogel tuning. Strikingly, hydrogels are ideal for studying locoregional therapy modalities, such as cold medical gas plasma technology. These partially ionized gases produce various reactive oxygen species (ROS) types along with other physico-chemical components such as ions and electric fields, and the spatio-temporal effects of these components delivered to diseased tissues remain largely elusive to date. Hence, this work outlines the promising applications of hydrogels in biomedical research in general and cold plasma science in particular and underlines the great potential of these smart scaffolds for current and future research and therapy.
仿生水凝胶能够在三维空间中进行生物化学、细胞生物学以及类似组织的研究。智能水凝胶也经常用于组织工程,并作为皮内或皮下再生医学的药物载体。它们还被用于生物传感器开发、3D细胞培养以及类器官生长优化的研究。然而,几十年来出现了许多类型的水凝胶、辅助成分和交联方法,使得此类研究变得多样化和复杂化。在此,提供了一份评估概述,将潜在应用与相应的水凝胶调控进行了映射。引人注目的是,水凝胶非常适合研究局部区域治疗方式,如冷医用气体等离子体技术。这些部分电离的气体除了产生离子和电场等其他物理化学成分外,还会产生各种类型的活性氧(ROS),而这些成分传递到患病组织的时空效应至今在很大程度上仍不清楚。因此,这项工作概述了水凝胶在一般生物医学研究,特别是冷等离子体科学中的应用前景,并强调了这些智能支架在当前和未来研究与治疗中的巨大潜力。