光流体从光学到光子学的途径

A. Liu
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引用次数: 0

摘要

微流控技术代表了在微流控芯片中处理或操纵少量流体(10-9到10-18升),尺寸为数十到数百微米的科学技术。光流体学的目标是在微观尺度上操纵光和流体,并利用它们之间的相互作用来创造高度通用的设备,这些设备在许多领域都具有重要的科学意义。集成光流体的新颖性体现在两个方面。首先,流体可以用来携带用于高灵敏度光学微设备分析的物质。其次,流体也可以用来控制光线,使其可调、可重构和自适应。这是一个新的突破性研究领域,为广泛的传统光子器件提供了新的解决方案和机会,允许使用微流体操纵在微米尺度上进行调谐和重新配置。这种新的创新使科学家和研究人员能够用新的工具和新的研究思路来解决许多经典问题。本文综述了光流体研究的最新进展,包括光流体在生物物理、生物化学和生物医学研究中的潜在应用,以及光学和光子器件的突破性创新。
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Approach of optofluidics from optics to photonics
Microfluidics represents the science and technology that processes or manipulates a small amount of fluid (10-9 to 10-18 litres) with dimensions of tens to hundreds of micrometers in a microfluidic chip. Optofluidics aims in manipulating light and fluid at microscale and exploiting their interaction to create highly versatile devices that have significant scientific interests in many areas. The novelties of the integrated optofluidics are two-fold. First, fluids can be used to carry substances for analysis in highly sensitive optical micro-devices. Second, fluids can also be exploited to control light, making them tunable, reconfigurable and adaptive. It is a new breakthrough research area that provides new solutions and opportunities for a wide range of traditional photonic devices, allowing tuning and reconfiguration at the micrometer scale by using microfluidic manipulation. This new innovation allows scientists and researchers to tackle many classical problems with new tools and new research ideas. In this paper, the state-of-the-art of optofluidic research is reviewed with breakthrough innovations in optical and photonic devices, including the high potential applications of optofluidics in biophysical, biochemistry and biomedical studies.
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