Wang Mingsong, Zhao Chenglong, Miao Xiaoyu, Zhao Yanhui, Rufo Joseph, Liu Yan Jun, Huang Tony Jun, Zheng Yuebing
Department of Mechanical Engineering, Materials Science and Engineering Program, Texas Materials Institute, The University of Texas at Austin, Austin, Texas, 78712, USA.
Department of Physics, Electro-Optics Graduate Program, University of Dayton, Dayton, Ohio, 45469, USA.
Small. 2015 Sep 16;11(35):4423-44. doi: 10.1002/smll.201500970. Epub 2015 Jul 3.
Plasmofluidics is the synergistic integration of plasmonics and micro/nanofluidics in devices and applications in order to enhance performance. There has been significant progress in the emerging field of plasmofluidics in recent years. By utilizing the capability of plasmonics to manipulate light at the nanoscale, combined with the unique optical properties of fluids and precise manipulation via micro/nanofluidics, plasmofluidic technologies enable innovations in lab-on-a-chip systems, reconfigurable photonic devices, optical sensing, imaging, and spectroscopy. In this review article, the most recent advances in plasmofluidics are examined and categorized into plasmon-enhanced functionalities in microfluidics and microfluidics-enhanced plasmonic devices. The former focuses on plasmonic manipulations of fluids, bubbles, particles, biological cells, and molecules at the micro/nanoscale. The latter includes technological advances that apply microfluidic principles to enable reconfigurable plasmonic devices and performance-enhanced plasmonic sensors. The article is concluded with perspectives on the upcoming challenges, opportunities, and possible future directions of the emerging field of plasmofluidics.
等离子体流体学是将等离子体激元学与微纳流体学协同集成于器件和应用中,以提升性能。近年来,新兴的等离子体流体学领域取得了显著进展。通过利用等离子体激元学在纳米尺度操纵光的能力,结合流体独特的光学特性以及通过微纳流体学进行的精确操控,等离子体流体技术推动了芯片实验室系统、可重构光子器件、光学传感、成像和光谱学等领域的创新。在这篇综述文章中,对等离子体流体学的最新进展进行了审视,并归类为微流体学中的等离子体增强功能和微流体学增强的等离子体器件。前者专注于在微纳尺度对流体、气泡、颗粒、生物细胞和分子进行等离子体操控。后者包括将微流体学原理应用于实现可重构等离子体器件和性能增强的等离子体传感器的技术进展。文章最后展望了等离子体流体学这一新兴领域即将面临的挑战、机遇以及可能的未来发展方向。