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Study Of Electro-Osmotıc Nanofluid Transport For Scraped Surface Heat Exchanger With Heat Transfer Phenomenon

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Date

2021

Authors

Imran, Ali
Javeed, Shumaila
Baleanu, Dumitru
Zeb, Muhammad
Ahmad, Sohail

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Abstract

In this study a novel mathematical model for electroosmotic flow for Cu-water based nanofluid with heat transfer phenomenon is reported for scraped-surface heat exchanger. The flow is initiated due to motion of lower wall of the channel and axial pressure gradient. The flow is modelled with aid of low Reynolds number and lubrication approximation theory. Exact analytical expressions are gathered for axial velocity, and stream functions for various stations of scraped-surface heat exchanger. Physical phenomenon of electro osmotic parameter are investigated on velocity profile, velocity distribution and pressure rise at edge of the blades. It is reported that electro-osmotic parameter mainly works as dragging force, it can be used to control the flow. This controlling mechanism may be helpful in mixing different materials in scraped-surface heat exchanger. Pressure rise at edge of the blades mainly rises below the blades with electro-osmotic, whereas, this profiles is suppressed for region above the blades and between the blades.

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Cu-Water Nanofluids, Electric Field, Scraped-Surface Heat Exchanger

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Citation

Waheed, Asif...et.al. (2021). "Study Of Electro-Osmotıc Nanofluid Transport For Scraped Surface Heat Exchanger With Heat Transfer Phenomenon", Thermal Science, Vol.25, No.2, pp.213-218.

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Source

Thermal Science

Volume

25

Issue

2

Start Page

213

End Page

218