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Target Confinement in Small Reaction Volumes Using Microfluidic Technologies: A Smart Approach for Single-Entity Detection and Analysis
Author(s) -
Karen Ven,
Bram Vanspauwen,
E. Ruı́z,
Karen Leirs,
Deborah Decrop,
Hans Gerstmans,
Dragana Spasić,
Jeroen Lammertyn
Publication year - 2018
Publication title -
acs sensors
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 2.055
H-Index - 57
ISSN - 2379-3694
DOI - 10.1021/acssensors.7b00873
Subject(s) - nanotechnology , microfluidics , computer science , population , nucleic acid , categorization , computational biology , biochemical engineering , materials science , biology , engineering , artificial intelligence , medicine , biochemistry , environmental health
Over the last decades, the study of cells, nucleic acid molecules, and proteins has evolved from ensemble measurements to so-called single-entity studies. The latter offers huge benefits, not only as biological research tools to examine heterogeneities among individual entities within a population, but also as biosensing tools for medical diagnostics, which can reach the ultimate sensitivity by detecting single targets. Whereas various techniques for single-entity detection have been reported, this review focuses on microfluidic systems that physically confine single targets in small reaction volumes. We categorize these techniques as droplet-, microchamber-, and nanostructure-based and provide an overview of their implementation for studying single cells, nucleic acids, and proteins. We furthermore reflect on the advantages and limitations of these techniques and highlight future opportunities in the field.

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