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Lossless Immunocytochemistry Based on Large-Scale Porous Hydrogel Pellicle for Accurate Rare Cell Analysis

Title
Lossless Immunocytochemistry Based on Large-Scale Porous Hydrogel Pellicle for Accurate Rare Cell Analysis
Author(s)
Woo, Hyeong JungKim, Seung-HoonKang, Hyun GyuKim, TaehoonKim, SooyeolKim, Jong ManKim, Jae YoungLee, Seung JoonKim, Young ZoonOh, So YeonLim, Ji HyaeRyu, Hyun MeeKim, Minseok S.
Issued Date
2023-03
Citation
ACS Applied Materials & Interfaces, v.15, no.12, pp.15059 - 15070
Type
Article
Author Keywords
immunocytochemistrylossless cell stainingintact cell morphologyhydrogelrare cell analysiscirculating fetal cellcirculating tumor cellsingle-cell analysis
Keywords
CIRCULATING TUMOR-CELLSBLOOD
ISSN
1944-8244
Abstract
Rare cells, such as circulating tumor cells or circulating fetal cells, provide important information for the diagnosis and prognosis of cancer and prenatal diagnosis. Since undercounting only a few cells can lead to significant misdiagnosis and incorrect decisions in subsequent treatment, it is crucial to minimize cell loss, particularly for rare cells. Moreover, the morphological and genetic information on cells should be preserved as intact as possible for downstream analysis. The conventional immunocytochemistry (ICC), however, fails to meet these requirements, causing unexpected cell loss and deformation of the cell organelles which may mislead the classification of benign and malignant cells. In this study, a novel ICC technique for preparing lossless cellular specimens was developed to improve the diagnostic accuracy of rare cell analysis and analyze intact cellular morphology. To this end, a robust and reproducible porous hydrogel pellicle was developed. This hydrogel encapsulates cells to minimize cell loss from the repeated exchange of reagents and prevent cell deformation. The soft hydrogel pellicle allows stable and intact cell picking for further downstream analysis, which is difficult with conventional ICC methods that permanently immobilize cells. The lossless ICC platform will pave the way for robust and precise rare cell analysis toward clinical practice. © 2023 American Chemical Society.
URI
http://hdl.handle.net/20.500.11750/46222
DOI
10.1021/acsami.2c18321
Publisher
American Chemical Society
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Department of New Biology BioDr. Lab - Nanobiomedicine 1. Journal Articles

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