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Micro-injection Molded Droplet Generation System for Digital PCR Application

Authors
Jo, DaaeKim, So YoungKang, Hyeon WooPyo, Sung HanJeong, Nam KyuBae, Nam HoLee, Seok JaeKim, Yong TaeLee, Kyoung G.
Issue Date
Dec-2022
Publisher
한국바이오칩학회
Keywords
Digital nucleic acid assay; Microdroplet; Micropattern; Digital PCR; Metal mold
Citation
BioChip Journal, v.16, no.4, pp 433 - 440
Pages
8
Journal Title
BioChip Journal
Volume
16
Number
4
Start Page
433
End Page
440
URI
https://scholarworks.bwise.kr/sch/handle/2021.sw.sch/21641
DOI
10.1007/s13206-022-00079-8
ISSN
1976-0280
2092-7843
Abstract
Sensitive, effective, and quantitative analysis of infectious pathogens is an important task for the prevention of human health threats. Herein, we present an advanced approach to producing gene-encapsulated microdroplets for quantitative analysis using a micropatterned metal mold and injection molding technique with an automatically operated system. An injection molded microdroplet generation device was successfully fabricated with a minimum channel width of 30 mu m and optimized to produce 100 mu m diameter droplets. The optimized microchannel design and flow rate also enable the production of stable numbers of microdroplets (similar to 16,000 droplets). To verify the applicability of our device and system to droplet-based digital PCR analysis, Escherichia coli (E. coli) O157:H7 was selected as a model bacterial pathogen, and the stx2 gene was amplified in the microdroplets. The generated microdroplets exhibit both chemical and mechanical stability, and our results are similar to those obtained by a commercially available method. Accordingly, the usefulness of the microdroplet generative device and system is confirmed as a simple, fast, and reliable tool for the quantitative molecular analysis of infectious diseases.
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