Separation and characterization of extracellular vesicles from human plasma by asymmetrical flow field-flow fractionation. 2020

Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
Laboratory of Protein and Peptide Pharmaceuticals & Proteomics Laboratory, Institute of Biophysics, Chinese Academy of Sciences, Beijing, 100101, China; University of Chinese Academy of Sciences, Beijing, 100049, China.

It is a big challenge to isolate extracellular vesicles (EVs) from human plasma because of the contamination from high abundant lipoproteins, such as high density lipoprotein (HDL) and low density lipoprotein particles (LDL). In this study, the parameters of asymmetrical flow field-flow fractionation (AF4) technology and sample preparation, including cross flow gradient, focusing time, ultrafiltration condition, sample amount and injection volume have been optimized and successfully utilized for the separation and characterization of EVs from human plasma. This study demonstrated that the great potential of AF4 in the separation of EVs from HDL and LDL in human plasma with high reproducibility and purity. This study indicated excessive focusing time in the AF4 separation and 100-300 kDa MWCO membrane based ultrafiltration in the pre-preparation will cause loss of EVs. A total of 1038 proteins have been identified in seven replicates of purified EVs from pooled human plasma sample. They are mainly enriched in extracellular exosomes, involved in extracellular matrix structural constituent, and associated with extracellular matrix-receptor interaction pathway. This study also indicated that human plasma contains more EVs than the paired serum at the same volume, and showed age- and gender-independent individual variability of the amount of EVs in human plasma. This study displayed that AF4 technique can serve as a powerful platform for the separation of EVs from human plasma, serum or human body fluids and this technology will promote the studies on EVs, such as proteomics, biomarker discovery and functions.

UI MeSH Term Description Entries
D008074 Lipoproteins Lipid-protein complexes involved in the transportation and metabolism of lipids in the body. They are spherical particles consisting of a hydrophobic core of TRIGLYCERIDES and CHOLESTEROL ESTERS surrounded by a layer of hydrophilic free CHOLESTEROL; PHOSPHOLIPIDS; and APOLIPOPROTEINS. Lipoproteins are classified by their varying buoyant density and sizes. Circulating Lipoproteins,Lipoprotein,Lipoproteins, Circulating
D010949 Plasma The residual portion of BLOOD that is left after removal of BLOOD CELLS by CENTRIFUGATION without prior BLOOD COAGULATION. Blood Plasma,Fresh Frozen Plasma,Blood Plasmas,Fresh Frozen Plasmas,Frozen Plasma, Fresh,Frozen Plasmas, Fresh,Plasma, Blood,Plasma, Fresh Frozen,Plasmas,Plasmas, Blood,Plasmas, Fresh Frozen
D006801 Humans Members of the species Homo sapiens. Homo sapiens,Man (Taxonomy),Human,Man, Modern,Modern Man
D000067128 Extracellular Vesicles Membrane limited structures derived from cell membranes and cytoplasmic material, and released into EXTRACELLULAR SPACE. They circulate through the EXTRACELLULAR FLUID and through the peripheral blood in the MICROVASCULATURE where cells, much larger, cannot, thereby affecting a variety of intercellular communication processes. Apoptotic Bodies,Exovesicles,Apoptotic Body,Bodies, Apoptotic,Body, Apoptotic,Exovesicle,Extracellular Vesicle,Vesicle, Extracellular,Vesicles, Extracellular
D015203 Reproducibility of Results The statistical reproducibility of measurements (often in a clinical context), including the testing of instrumentation or techniques to obtain reproducible results. The concept includes reproducibility of physiological measurements, which may be used to develop rules to assess probability or prognosis, or response to a stimulus; reproducibility of occurrence of a condition; and reproducibility of experimental results. Reliability and Validity,Reliability of Result,Reproducibility Of Result,Reproducibility of Finding,Validity of Result,Validity of Results,Face Validity,Reliability (Epidemiology),Reliability of Results,Reproducibility of Findings,Test-Retest Reliability,Validity (Epidemiology),Finding Reproducibilities,Finding Reproducibility,Of Result, Reproducibility,Of Results, Reproducibility,Reliabilities, Test-Retest,Reliability, Test-Retest,Result Reliabilities,Result Reliability,Result Validities,Result Validity,Result, Reproducibility Of,Results, Reproducibility Of,Test Retest Reliability,Validity and Reliability,Validity, Face
D031521 Fractionation, Field Flow Separation of molecules and particles by a simultaneous action of carrier liquid flow and focusing field forces (electrical, sedimentation, or thermal), without a stationary phase. Field Flow Fractionation,Sedimentation Field Flow Fractionation,SdFFF

Related Publications

Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
October 2022, Analytical chemistry,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
January 2019, Analytical and bioanalytical chemistry,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
February 2018, The Analyst,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
December 2023, STAR protocols,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
February 2020, Se pu = Chinese journal of chromatography,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
July 2011, Journal of chromatography. A,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
June 2004, Journal of separation science,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
May 2007, Journal of separation science,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
January 2021, Journal of chromatography. A,
Bowen Wu, and Xiulan Chen, and Jifeng Wang, and Xiaoqing Qing, and Zhipeng Wang, and Xiang Ding, and Zhensheng Xie, and Lili Niu, and Xiaojing Guo, and Tanxi Cai, and Xiangqian Guo, and Fuquan Yang
September 2015, Analytical chemistry,
Copied contents to your clipboard!