Macgregor Melanie, Vasilev Krasimir
School of Engineering, University of South Australia, Adelaide, SA 5000, Australia.
Future Industries Institute, University of South Australia, Adelaide, SA 5000, Australia.
Materials (Basel). 2019 Jan 8;12(1):191. doi: 10.3390/ma12010191.
Plasma polymers are unconventional organic thin films which only partially share the properties traditionally attributed to polymeric materials. For instance, they do not consist of repeating monomer units but rather present a highly crosslinked structure resembling the chemistry of the precursor used for deposition. Due to the complex nature of the deposition process, plasma polymers have historically been produced with little control over the chemistry of the plasma phase which is still poorly understood. Yet, plasma polymer research is thriving, in par with the commercialisation of innumerable products using this technology, in fields ranging from biomedical to green energy industries. Here, we briefly summarise the principles at the basis of plasma deposition and highlight recent progress made in understanding the unique chemistry and reactivity of these films. We then demonstrate how carefully designed plasma polymer films can serve the purpose of fundamental research and biomedical applications. We finish the review with a focus on a relatively new class of plasma polymers which are derived from oxazoline-based precursors. This type of coating has attracted significant attention recently due to its unique properties.
等离子体聚合物是非常规的有机薄膜,它们仅部分具备传统上赋予聚合材料的特性。例如,它们并非由重复的单体单元组成,而是呈现出一种高度交联的结构,类似于用于沉积的前驱体的化学性质。由于沉积过程的复杂性,等离子体聚合物在历史上的制备过程中,对等离子体相化学性质的控制很少,而人们对其仍知之甚少。然而,等离子体聚合物研究正蓬勃发展,这与使用该技术的无数产品在从生物医学到绿色能源产业等领域的商业化发展并行。在此,我们简要总结等离子体沉积的基本原理,并突出在理解这些薄膜独特的化学性质和反应活性方面取得的最新进展。然后,我们展示精心设计的等离子体聚合物薄膜如何能够服务于基础研究和生物医学应用的目的。我们以关注一类相对新型的、由恶唑啉基前驱体衍生而来的等离子体聚合物来结束这篇综述。由于其独特的性质,这种类型的涂层最近引起了广泛关注。