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  5. Analysis of hybrid interface cooling system using air ventilation and nanofluid
 
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Analysis of hybrid interface cooling system using air ventilation and nanofluid

Journal
AIP Conference Proceedings
ISSN
0094243X
Date Issued
2017-09-26
Author(s)
Rani M.F.H.
Razlan Z.M.
Bakar S.A.
Desa H.
Wan W.K.
Ibrahim I.
Kamarrudin N.S.
Bin-Abdun N.A.
DOI
10.1063/1.5002266
Handle (URI)
https://hdl.handle.net/20.500.14170/11799
Abstract
The hybrid interface cooling system needs to be designed for maintaining the electric vehicle's battery cell temperature at 25°C. The hybrid interface cooling system is a combination of two individual systems, where the primary cooling system (R-134a) and the secondary cooling system (CuO + Water) will be used to absorb the heat generated by the battery cells. The ventilation system is designed using air as the medium to transfer the heat from the batteries to the refrigeration system (R-134a). Research will focus on determining the suitable compressor displacement, the heat exchanger volume and the expansion valve resistance value. The analysis for the secondary cooling system is focused on the cooling coil where low temperature nanofluid is passing through each interval of the battery cells. For analysing purposes, the thermal properties of the mixture of 50 grams, Copper (II) Oxide and the base fluid have been determined. The hybrid interface cooling system are able to achieve 57.82% increments in term of rate of heat transfer as compared to the individual refrigeration system.
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