O'Connor Timothy F, Rajan Kirtana M, Printz Adam D, Lipomi Darren J
Department of NanoEngineering, University of California, San Diego, 9500 Gilman Drive, Mail Code 0448, La Jolla, CA 92093-0448, USA.
J Mater Chem B. 2015 Jul 7;3(25):4947-4952. doi: 10.1039/c5tb00173k. Epub 2015 Mar 5.
The carbon framework common to both organic semiconductors and biological structures suggests that these two classes of materials should be easily integrated. Substantial work, however, will be required to endow synthetic electroactive materials with properties resembling those of biological tissue, which exhibits extreme elasticity, biodegradability, and the capacity for self-repair. This Highlight reviews successful integration of organic semiconductor devices with biological systems, for example, in wearable and implantable health monitors and prosthetic devices. It then points to recent work in the areas of molecularly stretchable electronics, whole devices that can degrade under physiological conditions, and conjugated polymers capable of self-healing, which together suggest the possibility of a future in which organic electronics and biological tissue can interact seamlessly.
有机半导体和生物结构共有的碳骨架表明,这两类材料应该易于整合。然而,要赋予合成电活性材料类似于生物组织的特性,还需要大量的工作,生物组织具有极高的弹性、生物降解性和自我修复能力。本综述回顾了有机半导体器件与生物系统的成功整合,例如在可穿戴和可植入的健康监测器及假肢装置中的应用。然后指出了分子可拉伸电子学、在生理条件下可降解的整体器件以及能够自我修复的共轭聚合物等领域的最新研究成果,这些共同表明了有机电子学和生物组织能够无缝交互的未来可能性。