Fully automated sample treatment method for high throughput proteome analysis

被引:0
作者
Huiming Yuan
Zhongpeng Dai
Xiaodan Zhang
Baofeng Zhao
Hongwei Chu
Lihua Zhang
Yukui Zhang
机构
[1] Chinese Academy of Sciences,CAS Key Laboratory of Separation Sciences for Analytical Chemistry, National Chromatographic R & A Center, Dalian Institute of Chemical Physics
[2] Dalian University of Technology,Zhang Dayu School
来源
Science China Chemistry | 2021年 / 64卷
关键词
proteomics; fully automated sample treatment; hollow fibre membrane; immobilized enzymatic reactor; label-free quantification;
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摘要
The bottom-up strategy for proteome analysis typically employs a multistep sample preparation workflow that suffers from being time-consuming and sample loss or contamination caused by the off-line manual operation. Herein, we developed a hollow fibre membrane (HFM)-aided fully automated sample treatment (FAST) method. Due to the confinement effects of HFMs and the immobilized enzymatic reactor, the proteome samples could be denatured, reduced, desalted and digested within 8–20 min via the one-stop service. This method also showed superiority in trace sample analysis. In one and half hours, we could identify about 1,600 protein groups for 500 HeLa cells as the starting materials, 1.5–8 times more than those obtained by previously reported methods. Through the on-line combination of FAST with nano-liquid chromatography-electrospray ionization tandem mass spectrometry (nanoLC-ESI-MS/MS), we further established a fully integrated platform for label-free quantification of proteome with high reproducibility and precision. Collectively, FAST presented here represents a major advance in the high throughput sample treatment and quantitative analysis of proteomes. [graphic not available: see fulltext]
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页码:313 / 321
页数:8
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共 330 条
  • [1] Mertins P(2018)undefined Nat Protoc 13 1632-1661
  • [2] Tang LC(2018)undefined Chem Sci 9 2826-2830
  • [3] Krug K(2018)undefined Anal Chem 90 12090-12093
  • [4] Clark DJ(2018)undefined Anal Chem 90 10350-10359
  • [5] Gritsenko MA(2018)undefined Anal Chem 90 5841-5849
  • [6] Chen L(2014)undefined Nat Protoc 9 362-374
  • [7] Clauser KR(2009)undefined Nat Methods 6 359-362
  • [8] Clauss TR(2011)undefined J Proteome Res 10 3040-3049
  • [9] Shah P(2018)undefined Talanta 182 492-499
  • [10] Gillette MA(2017)undefined J Proteom 166 1-7