Integrated microfluidic system for efficient DNA extraction using on-disk magnetic stirrer micromixer

混合器 微流控 萃取(化学) 实验室晶片 纳米技术 材料科学 计算机科学 色谱法 化学
作者
Amin Dehghan,Ali Gholizadeh,Mahdi Navidbakhsh,Hossein Sadeghi,Esmail Pishbin
出处
期刊:Sensors and Actuators B-chemical [Elsevier]
卷期号:351: 130919-130919 被引量:5
标识
DOI:10.1016/j.snb.2021.130919
摘要

Micromixers are essential microfluidic modules for fabricating integrated lab-on-chip devices for point-of-care applications. Ease of fabrication and integration with other fluidic modules, practicability for different viscosities of the solutions, and high mixing efficiencies are the most important characteristics of a suitable micromixer. In this study, a magnetic stirrer on a rotating micro-structured disk is presented to mix liquids of a wide range of viscosities (up to 42 mPa.s) in low rotational velocities (less than 600 rpm). The concept relies on implementing a small stainless steel rotor aligned on a circular chamber and actuating that by stationary magnets located on the lab frame. The on-disk magnetic stirrer can be implemented in integrated microfluidic platforms without affecting other modules, e.g., valves, to rapidly prepare a homogenous solution in less than 2 s. Moreover, high mixing indexes and the considerable viscous stresses generated in solutions make this approach a convenient choice for the cell lysis process. Observations show that DNA yields in the order of 100 ± 15% relative to conventional lysis protocols can be achieved when the stirrer spins at 200 rpm for 1 min • Presenting a Simple and Inexpensive approach for rapid and efficient mixing on microfluidic disc. • Capability of mixing of liquids in a wide range of viscosities and volumes. • Performing a cell lysis protocol to show the applicability of the technique for implementing for molecular diagnostics. • Assessing the effects of different parameters on the performance of the On-Disc magnetic stirrer.
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