Reuvekamp H, Hekman E E G, van der Heide E, Matthews D T A
Laboratory for Surface Technology and Tribology, Department of Mechanics of Solids, Surfaces and Systems (MS3), Faculty of Engineering Technology, University of Twente, Postbox 217, 7500 AE Enschede, the Netherlands.
Biomedical Device Design and Production Lab, Department of Biomechanical Engineering (BE), Faculty of Engineering Technology, University of Twente, Postbox 217, 7500 AE Enschede, the Netherlands.
Heliyon. 2024 Feb 1;10(4):e25395. doi: 10.1016/j.heliyon.2024.e25395. eCollection 2024 Feb 29.
There is a growing number of personal healthcare devices that are in prolonged contact with the skin. The functionality of these products is linked to the interface formed by the contact between the medical apparatus and the skin. The interface can be characterised by its topology, compliance, and moisture and thermal regulating capabilities. Many devices are, however, described to have suboptimal and occlusive contacts, resulting in physiological unfavourable microclimates at the interface. The resulting poor management of moisture and temperature can impact the functionality and utility of the device and, in severe cases, lead to physical harm to the user. Being able to control the microclimate is therefore expected to limit medical-device related injuries and prevent associated skin complications. Surface engineering can modify and potentially enhance the regulation of the microclimate factors surrounding the interface between a product's surface and the skin. This review provides an overview of potential engineering solutions considering the needs for, and influences on, regulation of temperature and moisture by considering the skin-medical device interface as a system. These findings serve as a platform for the anticipated progress in the role of surface engineering for skin-device microclimate regulation.
越来越多的个人医疗设备与皮肤长时间接触。这些产品的功能与医疗设备和皮肤之间接触所形成的界面相关。该界面可通过其拓扑结构、顺应性以及水分和热调节能力来表征。然而,许多设备被描述为具有次优和闭塞性接触,导致界面处出现生理上不利的微气候。由此产生的对水分和温度的管理不善会影响设备的功能和效用,在严重情况下,还会对用户造成身体伤害。因此,能够控制微气候有望减少与医疗设备相关的伤害并预防相关的皮肤并发症。表面工程可以改变并潜在地增强对产品表面与皮肤之间界面周围微气候因素的调节。本综述通过将皮肤-医疗设备界面视为一个系统,考虑到对温度和水分调节的需求及影响,概述了潜在的工程解决方案。这些发现为表面工程在皮肤-设备微气候调节中的作用的预期进展提供了一个平台。