Song Jiangyi, Meng Shaoxin, Liu Jianben, Chen Naichao
School Energy and Mechanical Engineering, Shanghai University of Electric Power, Shanghai 200090, China.
State Key Laboratory of Power Grid Environmental Protection, Wuhan, Hubei 430074, China.
Biomicrofluidics. 2025 Jan 6;19(1):011501. doi: 10.1063/5.0235201. eCollection 2025 Jan.
In the field of microfluidics, high-pressure microfluidics technology, which utilizes high driving pressure for microfluidic analysis, is an evolving technology. This technology combines microfluidics and pressurization, where the flow of fluid is controlled by means of high-pressure-driven devices greater than 10 MPa. This paper first reviews the existing high-pressure microfluidics systems and describes their components and applications. Then, it summarizes several materials used in the microfabrication of high-pressure microfluidics chips, reviewing their properties, processing methods, and bonding methods. In addition, advanced laser processing techniques for the microfabrication of high-pressure microfluidics chips are described. Last, the paper examines the analytical detection methods employed in high-pressure microfluidics systems, encompassing optical and electrochemical detection methods. The review of analytical detection methods shows the different functions and application scenarios of high-pressure microfluidics systems. In summary, this study provides an efficient and advanced microfluidics system, which can be widely used in chemical engineering, food industry, and environmental engineering under high pressure conditions.
在微流控领域,利用高驱动压力进行微流控分析的高压微流控技术是一项不断发展的技术。该技术将微流控与增压相结合,通过大于10兆帕的高压驱动装置来控制流体流动。本文首先回顾了现有的高压微流控系统,并描述了其组件和应用。然后,总结了用于高压微流控芯片微加工的几种材料,回顾了它们的特性、加工方法和键合方法。此外,还介绍了用于高压微流控芯片微加工的先进激光加工技术。最后,本文研究了高压微流控系统中采用的分析检测方法,包括光学和电化学检测方法。对分析检测方法的综述展示了高压微流控系统的不同功能和应用场景。总之,本研究提供了一种高效且先进的微流控系统,可在高压条件下广泛应用于化学工程、食品工业和环境工程领域。