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Functionalized microwell laser sorting method for single-cell viable microbial detection

delete2025-03-01
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PRE
AI
Y
Yuntong Wang
Y
Ying Xue
H
Huan Wang
周春阳 (Chunyang Zhou)
W
Wei Wang
J
Jianpeng Sheng
P
Peng Liang
H
Hang Li
Q
Qingmei Xu
王瑜 (Yu Wang)
刘坤祥 cover
刘坤祥 (Kunxiang Liu)
L
Lindong Shang
郝鹏 (Peng Hao)
F
Fuyuan Chen
Z
Zhang, Kunlong
H
Huabing Yin
Y
Yun Wang
F
Fei Deng
S
Shilun Feng *
W
Wei E. Huang *
B
Bei Li *
DOI:10.1016/j.snb.2024.137202delete
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Abstract

Abstract

En 中文
Microbial detection at the single-cell level offers a novel approach for understanding intricacies of biological systems at the most fundamental level, influencing the advances in therapeutics, drug discoveries, and bioenergy. However, achieving high throughput, high accuracy, specificity, and low damage in sorting and detecting microbial cells have been the most significant hurdles. In this study, we introduced a laser-induced forward transfer (LIFT) with functionalized microwell arrays, called functionalized microwell laser sorting (FMLS). The microwell ejection chip (M-chip) cut the liquid surface tension to form femtoliter droplet arrays by hundreds of thousands of microwell arrays, which enabled efficient capture of single microbial cells and enhanced throughput of microbial detection. The FMLS has achieved over 80 % capture efficiency for individual microorganisms such as Escherichia coli, Saccharomyces cerevisiae, Cyanobacteria spp., and Chlamydomonas spp.. Additionally, it integrated bright-field, fluorescence, and Raman identification methods to enhance specificity for microbial detection. FMLS system exhibited nearly 100 % single-cell sorting efficiency without affecting adjacent cells. The sorted single cells were validated through PCR, confirming the accuracy of single-cell capture and sorting. Through simulations, we optimized the microwell thickness to minimize the required sorting energy, enabling over 95 % cell viability and over 88 % genome coverage of single cells. These highlight the flexibility and technical capabilities of the FMLS system, which will become attractive and invaluable sorting and detection tools for single- cell research, driving forward advancements in diagnostics, environmental science, and biotechnology.
Keywords:
Laser-Induced Forward Transfer (LIFT)
Functionalized microwell
Single microbial cell capture
Single microbial cell sorting
Single microbial cell detection

Journal

Sensors and Actuators B-Chemical cover
Sensors and Actuators B-Chemical
IF:
7.7
Papers:
3.3W
Citations:
12.6W

Organization

U
university of chinese academy of sciences, cas
Scholars:
4.1W
Papers: 3.8W
Citations: 75
C
changchun university of science & technology
Scholars:
6.7K
Papers: 4.2K
Citations: 3
U
university of glasgow
Scholars:
3.5W
Papers: 3.1W
Citations: 37
P
peking university
Scholars:
11.7W
Papers: 8.7W
Citations: 146
Z
zhejiang university
Scholars:
17.4W
Papers: 12.0W
Citations: 152
C
chinese academy of sciences
Scholars:
56.0W
Papers: 44.8W
Citations: 704
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