Application of adaptive pressure-driven microfluidic chip in thyroid function measurement

被引:2
|
作者
Xingshang Xu [1 ,2 ]
Nongyue He [1 ,3 ]
机构
[1] State Key Laboratory of Bioelectronics,School of Biological Science and Medical Engineering,Southeast University
[2] Nanjing Lanyu Biotechnology Co.,Ltd.
[3] Hunan Key Laboratory of Biomedical Nanomaterials and Devices,College of Life Sciences and Chemistry,Hunan University of Technology
关键词
D O I
暂无
中图分类号
R581 [甲状腺疾病]; R318 [生物医学工程];
学科分类号
0831 ;
摘要
The improvement in accuracy of in vitro diagnosis has always been the focus of early screening of thyroid dysfunction.We constructed a microfluidic chip based on a polystyrene polymer substrate.Total triiodothyronine(TT3),total thyroxine(TT4),free triiodothyronine(FT3),free thyroxine(FT4),and thyrotropin(TSH) in human whole blood samples were analysed by fluorescence immunoassay to evaluate thyroid function.The results indicate that the microfluidic chip shows a good linear relationship in the detection of TT3,TT4,FT3,FT4,and TS H standards,and the correlation coefficient(r) is not less than0.9900.In addition,the chip also has strong anti-interference(RSD%≤5%) and good repeatability(CV≤8%),and its inter-batch differences are small(CV ≤15%).The results of practical application in clinical thyroid function mea surement indicated its high accuracy(r≥0.9900).It provides a new method for the determination of thyroid function and lays a foundation for subsequent clinical application.
引用
收藏
页码:1747 / 1750
页数:4
相关论文
共 50 条
  • [41] Pressure-driven sample injection with quantitative liquid dispensing for on-chip electrophoresis
    Lee, NY
    Yamada, M
    Seki, M
    ANALYTICAL SCIENCES, 2004, 20 (03) : 483 - 487
  • [42] Global network design for robust operation of microfluidic droplet generators with pressure-driven flow
    Tomasz Glawdel
    Carolyn L. Ren
    Microfluidics and Nanofluidics, 2012, 13 : 469 - 480
  • [43] Particle handling in straight microfluidic channels via opposing electroosmotic and pressure-driven flows
    Kuan-Da Huang
    Sheng-Chun Yang
    Zhi-Xiong Huang
    Ruey-Jen Yang
    Microfluidics and Nanofluidics, 2008, 5 : 245 - 253
  • [44] Pressure-Driven Two-Input 3D Microfluidic Logic Gates
    El-Atab, Nazek
    Carlos, Javier Chavarrio
    Hussain, Muhammad M.
    ADVANCED SCIENCE, 2020, 7 (02)
  • [45] Quantitative Hematocrit Measurement on a Pressure-Actuated Microfluidic Chip
    Li, Haonan
    Zhang, Muyang
    Chen, Zejingqiu
    Xiao, Zhiqing
    Feng, Zitao
    Hald, Eric S.
    Guo, Weijin
    12TH ASIAN-PACIFIC CONFERENCE ON MEDICAL AND BIOLOGICAL ENGINEERING, VOL 1, APCMBE 2023, 2024, 103 : 415 - 420
  • [46] Pressure-driven liquid-liquid separation in Y-shaped microfluidic junctions
    Jahromi, Peyman Foroozan
    Karimi-Sabet, Javad
    Amini, Younes
    Fadaei, Hooman
    CHEMICAL ENGINEERING JOURNAL, 2017, 328 : 1075 - 1086
  • [47] Electrical power free, low dead volume, pressure-driven pumping for microfluidic applications
    Moscovici, Mario
    Chien, Wei-Yin
    Abdelgawad, Mohamed
    Sun, Yu
    BIOMICROFLUIDICS, 2010, 4 (04)
  • [48] Particle handling in straight microfluidic channels via opposing electroosmotic and pressure-driven flows
    Huang, Kuan-Da
    Yang, Sheng-Chun
    Huang, Zhi-Xiong
    Yang, Ruey-Jen
    MICROFLUIDICS AND NANOFLUIDICS, 2008, 5 (02) : 245 - 253
  • [49] Pressure-Driven Microfluidic Perfusion Culture Device for Integrated Dose-Response Assays
    Hattori, Koji
    Sugiura, Shinji
    Kanamori, Toshiyuki
    JALA, 2013, 18 (06): : 437 - 445
  • [50] Global network design for robust operation of microfluidic droplet generators with pressure-driven flow
    Glawdel, Tomasz
    Ren, Carolyn L.
    MICROFLUIDICS AND NANOFLUIDICS, 2012, 13 (03) : 469 - 480