Parametric and uncertainty study of a counter current LBE-water heat exchanger with trace and susa

Wadim Jäger, Victor Sánchez, Diego Castelliti

    Research outputpeer-review

    Abstract

    Due to the variety of existing physical models for the heat transfer and for the description of thermo physical properties, the modeling results of different users for the same design can be different. These discrepancies can be rather big and have therefore a big impact on the thermo hydraulic performance of the investigated design proposals, in the present case a LBE-water counter current heat exchanger. A parametric, and a subsequent uncertainty and sensitivity study, is performed with different LBE to wall heat transfer models and different sets of the thermo physical properties of the heat exchanger material, steel and oxide layer. The investigations reveal that with best practice models the transferred power of the investigated heat exchanger design can range from 26 MW to 31 MW, with a target value of 27.5 MW. For the parametric study the thermal conductivity range of the oxide has the biggest impact on the results while for the uncertainty analysis the heat transfer model and the thermal conductivity of the oxide layer are of importance.

    Original languageEnglish
    Title of host publication2012 20th International Conference on Nuclear Engineering and the ASME 2012 Power Conference, ICONE 2012-POWER 2012
    PublisherASME - The American Society of Mechanical Engineers
    Pages565-572
    Number of pages8
    Edition1
    ISBN (Print)9780791844960
    DOIs
    StatePublished - Aug 2013
    Event2012 - ICONE20: 20st International Conference on Nuclear Engineering - ASME, Anaheim
    Duration: 30 Jul 20123 Aug 2012

    Publication series

    NameInternational Conference on Nuclear Engineering, Proceedings, ICONE
    Number1
    Volume2

    Conference

    Conference2012 - ICONE20
    Country/TerritoryUnited States
    CityAnaheim
    Period2012-07-302012-08-03

    ASJC Scopus subject areas

    • Nuclear Energy and Engineering

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