Zhang Zhichao, Lee Yeageun, Haque Md Farhadul, Leem Juyoung, Hsieh Ezekiel Y, Nam SungWoo
Department of Mechanical Science and Engineering, University of Illinois at Urbana-Champaign, Urbana, IL, 61801, USA.
Department of Mechanical Engineering, Stanford University, Stanford, CA, 94305, USA.
Nano Converg. 2022 Jun 13;9(1):28. doi: 10.1186/s40580-022-00319-5.
The past decade has witnessed a rapid growth of graphene plasmonics and their applications in different fields. Compared with conventional plasmonic materials, graphene enables highly confined plasmons with much longer lifetimes. Moreover, graphene plasmons work in an extended wavelength range, i.e., mid-infrared and terahertz regime, overlapping with the fingerprints of most organic and biomolecules, and have broadened their applications towards plasmonic biological and chemical sensors. In this review, we discuss intrinsic plasmonic properties of graphene and strategies both for tuning graphene plasmons as well as achieving higher performance by integrating graphene with plasmonic nanostructures. Next, we survey applications of graphene and graphene-hybrid materials in biosensors, chemical sensors, optical sensors, and sensors in other fields. Lastly, we conclude this review by providing a brief outlook and challenges of the field. Through this review, we aim to provide an overall picture of graphene plasmonic sensing and to suggest future trends of development of graphene plasmonics.
在过去十年中,石墨烯等离子体激元及其在不同领域的应用迅速发展。与传统的等离子体激元材料相比,石墨烯能够实现高度局域化的等离子体激元,其寿命长得多。此外,石墨烯等离子体激元在扩展的波长范围内工作,即中红外和太赫兹波段,与大多数有机和生物分子的指纹图谱重叠,并拓宽了它们在等离子体生物和化学传感器方面的应用。在这篇综述中,我们讨论了石墨烯的固有等离子体激元特性,以及调节石墨烯等离子体激元以及通过将石墨烯与等离子体纳米结构集成来实现更高性能的策略。接下来,我们综述了石墨烯和石墨烯复合材料在生物传感器、化学传感器、光学传感器及其他领域传感器中的应用。最后,我们通过对该领域的简要展望和挑战来总结这篇综述。通过这篇综述,我们旨在提供石墨烯等离子体激元传感的全貌,并提出石墨烯等离子体激元学未来的发展趋势。