Energy balance analysis on formation of cavity and splashing by top-blow gas jet

F. Tanaka, R. Imai, T. Yanagiya, A. Fuwa

    Research output: Contribution to journalArticle

    Abstract

    In order to elucidate the gas jetting phenomena upon a liquid such as cavity formation and splashing of liquid, phenomenological fluid dynamical energy balance equation has been derived, where the total injection gas energy is the sum of a cavity potential energy and a cavity surface energy increase. A linear relationship between these energies per unit cavity volume and the injection gas energy density at the lance nozzle exit is observed and the effective energy coefficient for utilization for the inlet energy is derived as function of a dimensionless lance height. This paper also discusses the effects of surface tension and viscosity of a liquid as well as that of injection gas density on the cavity and splash formation mode.

    Original languageEnglish
    Pages (from-to)46-59
    Number of pages14
    JournalMetallurgical Review of MMIJ (Mining and Metallurgical Institute of Japan)
    Volume12
    Issue number2
    Publication statusPublished - 1995 Dec

    Fingerprint

    Energy balance
    Gases
    Liquids
    Density of gases
    Potential energy
    Interfacial energy
    Surface tension
    Nozzles
    Viscosity
    Fluids

    ASJC Scopus subject areas

    • Metals and Alloys

    Cite this

    Energy balance analysis on formation of cavity and splashing by top-blow gas jet. / Tanaka, F.; Imai, R.; Yanagiya, T.; Fuwa, A.

    In: Metallurgical Review of MMIJ (Mining and Metallurgical Institute of Japan), Vol. 12, No. 2, 12.1995, p. 46-59.

    Research output: Contribution to journalArticle

    @article{e0fa51c21a9e48a89ace3d8792cddfce,
    title = "Energy balance analysis on formation of cavity and splashing by top-blow gas jet",
    abstract = "In order to elucidate the gas jetting phenomena upon a liquid such as cavity formation and splashing of liquid, phenomenological fluid dynamical energy balance equation has been derived, where the total injection gas energy is the sum of a cavity potential energy and a cavity surface energy increase. A linear relationship between these energies per unit cavity volume and the injection gas energy density at the lance nozzle exit is observed and the effective energy coefficient for utilization for the inlet energy is derived as function of a dimensionless lance height. This paper also discusses the effects of surface tension and viscosity of a liquid as well as that of injection gas density on the cavity and splash formation mode.",
    author = "F. Tanaka and R. Imai and T. Yanagiya and A. Fuwa",
    year = "1995",
    month = "12",
    language = "English",
    volume = "12",
    pages = "46--59",
    journal = "Metallurgical Review of MMIJ (Mining and Metallurgical Institute of Japan)",
    issn = "0289-6214",
    publisher = "Mining and Materials Processing Institute of Japan",
    number = "2",

    }

    TY - JOUR

    T1 - Energy balance analysis on formation of cavity and splashing by top-blow gas jet

    AU - Tanaka, F.

    AU - Imai, R.

    AU - Yanagiya, T.

    AU - Fuwa, A.

    PY - 1995/12

    Y1 - 1995/12

    N2 - In order to elucidate the gas jetting phenomena upon a liquid such as cavity formation and splashing of liquid, phenomenological fluid dynamical energy balance equation has been derived, where the total injection gas energy is the sum of a cavity potential energy and a cavity surface energy increase. A linear relationship between these energies per unit cavity volume and the injection gas energy density at the lance nozzle exit is observed and the effective energy coefficient for utilization for the inlet energy is derived as function of a dimensionless lance height. This paper also discusses the effects of surface tension and viscosity of a liquid as well as that of injection gas density on the cavity and splash formation mode.

    AB - In order to elucidate the gas jetting phenomena upon a liquid such as cavity formation and splashing of liquid, phenomenological fluid dynamical energy balance equation has been derived, where the total injection gas energy is the sum of a cavity potential energy and a cavity surface energy increase. A linear relationship between these energies per unit cavity volume and the injection gas energy density at the lance nozzle exit is observed and the effective energy coefficient for utilization for the inlet energy is derived as function of a dimensionless lance height. This paper also discusses the effects of surface tension and viscosity of a liquid as well as that of injection gas density on the cavity and splash formation mode.

    UR - http://www.scopus.com/inward/record.url?scp=0029487543&partnerID=8YFLogxK

    UR - http://www.scopus.com/inward/citedby.url?scp=0029487543&partnerID=8YFLogxK

    M3 - Article

    VL - 12

    SP - 46

    EP - 59

    JO - Metallurgical Review of MMIJ (Mining and Metallurgical Institute of Japan)

    JF - Metallurgical Review of MMIJ (Mining and Metallurgical Institute of Japan)

    SN - 0289-6214

    IS - 2

    ER -