Interdisciplinary Nanoscience Center, Aarhus University, DK-8000, Aarhus, Denmark.
Phys Chem Chem Phys. 2013 Oct 28;15(40):17029-37. doi: 10.1039/c3cp52651h.
Electrospinning technology has been widely recognized because of its ability to synthesize nanoscale fibers that are structurally similar to fibrillar structure of the natural extracellular matrix (ECM). Rendering the nanofiber surface to be biofunctional is critical for the successful application of the electrospinning technology in biomedical applications. Limitations in typical conjugation chemistry and physical adsorption procedures might be overcome by using polydopamine (pDA) coating inspired by adhesive proteins secreted by marine mussels. This perspective paper attempts to highlight an emerging area of the unique combination of electrospinning with pDA surface functionalization. The scientific progress and understandings of pDA coating chemistry mechanisms, coating processes and characterization with aids of nanoscale analytical techniques are reviewed and discussed. The intrinsic biomimetic morphological characteristics of the electrospun nanofibers united with the unique advantages of the pDA associated bio-functionalization have endowed a range of successful applications, especially in the interesting and important field of bioengineering.
静电纺丝技术因其能够合成结构类似于天然细胞外基质(ECM)纤维状结构的纳米纤维而得到广泛认可。使纳米纤维表面具有生物功能性对于静电纺丝技术在生物医学应用中的成功应用至关重要。通过使用受海洋贻贝类分泌的黏附蛋白启发的聚多巴胺(pDA)涂层,可以克服典型的共轭化学和物理吸附程序的局限性。本文试图突出静电纺丝与 pDA 表面功能化独特结合的新兴领域。综述和讨论了 pDA 涂层化学机制、涂层过程和纳米分析技术辅助的表征方面的科学进展和理解。静电纺丝纳米纤维的固有仿生形态特征与 pDA 相关生物功能化的独特优势相结合,赋予了一系列成功的应用,特别是在有趣且重要的生物工程领域。