Literature DB >> 33562855

Fabrication of a T-Shaped Microfluidic Channel Using a Consumer Laser Cutter and Application to Monodisperse Microdroplet Formation.

Naoki Sasaki1,2, Eisuke Sugenami1.   

Abstract

The use of micrometer-sized droplets for chemical and biochemical analysis has been widely explored. Photolithography is mainly used to fabricate microfluidic devices, which is often employed to form monodisperse microdroplets. Although photolithography enables precise microfabrication, it is not readily available to biochemists because it requires specialized equipment such as clean room and mask aligners, and expensive consumables such as photoresist and silicon wafers. In this study, we fabricated a microfluidic device using a consumer laser cutter and applied it to droplet formation. Monodisperse microdroplets were formed by using an oil phase for droplet digital polymerase chain reaction (PCR) as the continuous phase and phosphate-buffered saline or polyethylene glycol solution as the dispersed phase. The droplet size decreased as the flow rate of the continuous phase increased and approached a constant value. The method developed in this study can be used to realize microdroplet-based biochemical analysis with simple devices or to construct artificial cells.

Entities:  

Keywords:  artificial cell; microdroplets; microfluidics; monodisperse

Year:  2021        PMID: 33562855      PMCID: PMC7914700          DOI: 10.3390/mi12020160

Source DB:  PubMed          Journal:  Micromachines (Basel)        ISSN: 2072-666X            Impact factor:   2.891


  17 in total

Review 1.  Fabrication of microfluidic systems in poly(dimethylsiloxane).

Authors:  J C McDonald; D C Duffy; J R Anderson; D T Chiu; H Wu; O J Schueller; G M Whitesides
Journal:  Electrophoresis       Date:  2000-01       Impact factor: 3.535

2.  Droplet formation in a microchannel network.

Authors:  Takasi Nisisako; Toru Torii; Toshiro Higuchi
Journal:  Lab Chip       Date:  2002-01-18       Impact factor: 6.799

3.  Lattice Boltzmann simulations of droplet formation in a T-shaped microchannel.

Authors:  S van der Graaf; T Nisisako; C G P H Schroën; R G M van der Sman; R M Boom
Journal:  Langmuir       Date:  2006-04-25       Impact factor: 3.882

4.  Release of encapsulated content in microdroplets.

Authors:  Mao Fukuyama; Akihide Hibara
Journal:  Anal Sci       Date:  2011       Impact factor: 2.081

Review 5.  Emerging Droplet Microfluidics.

Authors:  Luoran Shang; Yao Cheng; Yuanjin Zhao
Journal:  Chem Rev       Date:  2017-05-24       Impact factor: 60.622

6.  Liquid-liquid phase separation in artificial cells.

Authors:  Charles D Crowe; Christine D Keating
Journal:  Interface Focus       Date:  2018-08-17       Impact factor: 3.906

Review 7.  Molecular crowding and RNA catalysis.

Authors:  Saurja DasGupta
Journal:  Org Biomol Chem       Date:  2020-10-14       Impact factor: 3.876

8.  Prediction of Droplet Production Speed by Measuring the Droplet Spacing Fluctuations in a Flow-Focusing Microdroplet Generator.

Authors:  Wen Zeng; Dong Xiang; Hai Fu
Journal:  Micromachines (Basel)       Date:  2019-11-25       Impact factor: 2.891

Review 9.  Advanced Fabrication Techniques of Microengineered Physiological Systems.

Authors:  Joseph R Puryear Iii; Jeong-Kee Yoon; YongTae Kim
Journal:  Micromachines (Basel)       Date:  2020-07-28       Impact factor: 2.891

Review 10.  Droplet Microfluidics-Enabled High-Throughput Screening for Protein Engineering.

Authors:  Lindong Weng; James E Spoonamore
Journal:  Micromachines (Basel)       Date:  2019-10-29       Impact factor: 2.891

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  1 in total

Review 1.  A Review of Microfluidic Experimental Designs for Nanoparticle Synthesis.

Authors:  Adelina-Gabriela Niculescu; Dan Eduard Mihaiescu; Alexandru Mihai Grumezescu
Journal:  Int J Mol Sci       Date:  2022-07-27       Impact factor: 6.208

  1 in total

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