Heat and mass transfer in cross-flow air-to-air membrane heat exchanger in heating mode

•Local Nusselt numbers equations for finned membrane channel are obtained.•CFD and finite difference heat transfer modelling results are within 1.6% difference.•Condensation and frost formation is influenced by membrane water vapour permeability. The main objective of the paper is numerical simulati...

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Veröffentlicht in:Applied thermal engineering 2016-05, Vol.100, p.133-145
Hauptverfasser: Deshko, Valerii I., Karvatskii, Anton Ya, Sukhodub, Iryna O.
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container_title Applied thermal engineering
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creator Deshko, Valerii I.
Karvatskii, Anton Ya
Sukhodub, Iryna O.
description •Local Nusselt numbers equations for finned membrane channel are obtained.•CFD and finite difference heat transfer modelling results are within 1.6% difference.•Condensation and frost formation is influenced by membrane water vapour permeability. The main objective of the paper is numerical simulation and analysis of heat and mass transfer, condensation and frost formation conditions in cross-flow membrane-based heat exchanger. To get the desired results, the following problems were solved: numerical models for heat transfer under uniform wall temperature for parallel plates channel without/with fins were developed; numerical models were validated using literature data; local Nusselt number equations were obtained for parallel plates channel without/with fins; numerical models for heat and mass transfer in cross-flow membrane-based heat exchanger were developed incorporating local Nusselt numbers for finite difference method; numerical models were validated using ε-NTU method and experimental data from laboratory; effectiveness, condensation and frosting conditions in cross-flow membrane-based heat exchanger were numerically studied for different water vapour permeability coefficients, outside air temperature and inside air relative humidity.
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subjects Air-to-air heat exchanger
Channels
Condensation
Cross flow
Energy recovery
Energy saving
Fluid flow
Frost formation
Heat and mass transfer
Heat exchangers
Mass transfer
Mathematical analysis
Mathematical models
Parallel plates
Ventilation
title Heat and mass transfer in cross-flow air-to-air membrane heat exchanger in heating mode
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