Multiphase flow in lab on chip devices: A real tool for the future

Lingling Shui, S. Pennathur, Sumita Pennathur, Jan C.T. Eijkel, Albert van den Berg

    Research output: Contribution to journalArticleAcademicpeer-review

    23 Citations (Scopus)

    Abstract

    Many applications for lab on a chip (LOC) devices require the use of two or more fluids that are either not chemically related (e.g. oil and water) or in different phases (e.g. liquid and gas). Utilizing multiphase flow in LOC devices allows for both the fundamental study of multiphase flow and the development of novel types of pumping, mixing, reaction, separation, and detection technologies. Current examples of multiphase LOC applications include inkjet printers, separation of biochemical samples, manipulation of biomolecules, bio-sensing, enhanced mixing for bio-sample reactions, biomolecule detection, microelectronic cooling, drug delivery devices, explosives detection, dairy analysis, bubble computing and analysis of emulsions, foams, and bubble coalescence. In this focus article, we will briefly review the basics of multiphase flow with reference to microfluidic systems, describe some of the most promising flow control methods for multiphase fluid systems, and discuss our thoughts about future directions of microfluidic multiphase flow.
    Original languageUndefined
    Pages (from-to)1010-1014
    Number of pages5
    JournalLab on a chip
    Volume8
    Issue number08332/7
    DOIs
    Publication statusPublished - 2008

    Keywords

    • METIS-252108
    • EWI-14080
    • IR-60213
    • BIOS-Micro/nanofluidics

    Cite this

    Shui, Lingling ; Pennathur, S. ; Pennathur, Sumita ; Eijkel, Jan C.T. ; van den Berg, Albert. / Multiphase flow in lab on chip devices: A real tool for the future. In: Lab on a chip. 2008 ; Vol. 8, No. 08332/7. pp. 1010-1014.
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    title = "Multiphase flow in lab on chip devices: A real tool for the future",
    abstract = "Many applications for lab on a chip (LOC) devices require the use of two or more fluids that are either not chemically related (e.g. oil and water) or in different phases (e.g. liquid and gas). Utilizing multiphase flow in LOC devices allows for both the fundamental study of multiphase flow and the development of novel types of pumping, mixing, reaction, separation, and detection technologies. Current examples of multiphase LOC applications include inkjet printers, separation of biochemical samples, manipulation of biomolecules, bio-sensing, enhanced mixing for bio-sample reactions, biomolecule detection, microelectronic cooling, drug delivery devices, explosives detection, dairy analysis, bubble computing and analysis of emulsions, foams, and bubble coalescence. In this focus article, we will briefly review the basics of multiphase flow with reference to microfluidic systems, describe some of the most promising flow control methods for multiphase fluid systems, and discuss our thoughts about future directions of microfluidic multiphase flow.",
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    author = "Lingling Shui and S. Pennathur and Sumita Pennathur and Eijkel, {Jan C.T.} and {van den Berg}, Albert",
    note = "10.1039/b808974b",
    year = "2008",
    doi = "10.1039/b808974b",
    language = "Undefined",
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    issn = "1473-0197",
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    Multiphase flow in lab on chip devices: A real tool for the future. / Shui, Lingling; Pennathur, S.; Pennathur, Sumita; Eijkel, Jan C.T.; van den Berg, Albert.

    In: Lab on a chip, Vol. 8, No. 08332/7, 2008, p. 1010-1014.

    Research output: Contribution to journalArticleAcademicpeer-review

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    T1 - Multiphase flow in lab on chip devices: A real tool for the future

    AU - Shui, Lingling

    AU - Pennathur, S.

    AU - Pennathur, Sumita

    AU - Eijkel, Jan C.T.

    AU - van den Berg, Albert

    N1 - 10.1039/b808974b

    PY - 2008

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    N2 - Many applications for lab on a chip (LOC) devices require the use of two or more fluids that are either not chemically related (e.g. oil and water) or in different phases (e.g. liquid and gas). Utilizing multiphase flow in LOC devices allows for both the fundamental study of multiphase flow and the development of novel types of pumping, mixing, reaction, separation, and detection technologies. Current examples of multiphase LOC applications include inkjet printers, separation of biochemical samples, manipulation of biomolecules, bio-sensing, enhanced mixing for bio-sample reactions, biomolecule detection, microelectronic cooling, drug delivery devices, explosives detection, dairy analysis, bubble computing and analysis of emulsions, foams, and bubble coalescence. In this focus article, we will briefly review the basics of multiphase flow with reference to microfluidic systems, describe some of the most promising flow control methods for multiphase fluid systems, and discuss our thoughts about future directions of microfluidic multiphase flow.

    AB - Many applications for lab on a chip (LOC) devices require the use of two or more fluids that are either not chemically related (e.g. oil and water) or in different phases (e.g. liquid and gas). Utilizing multiphase flow in LOC devices allows for both the fundamental study of multiphase flow and the development of novel types of pumping, mixing, reaction, separation, and detection technologies. Current examples of multiphase LOC applications include inkjet printers, separation of biochemical samples, manipulation of biomolecules, bio-sensing, enhanced mixing for bio-sample reactions, biomolecule detection, microelectronic cooling, drug delivery devices, explosives detection, dairy analysis, bubble computing and analysis of emulsions, foams, and bubble coalescence. In this focus article, we will briefly review the basics of multiphase flow with reference to microfluidic systems, describe some of the most promising flow control methods for multiphase fluid systems, and discuss our thoughts about future directions of microfluidic multiphase flow.

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