Authors :
Falana, A.; Adeboje, T. B.
Volume/Issue :
Volume 11 - 2026, Issue 1 - January
Google Scholar :
https://tinyurl.com/yhak8ks9
Scribd :
https://tinyurl.com/5cnxmaua
DOI :
https://doi.org/10.38124/ijisrt/26jan164
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
This paper showcased the cooling effects of Aluminum oxide (AONF), Copper Oxide (CONF) Nanofluids and water
(H2O)on polyethylene stretching sheets for good surface finish and aesthetic look. The AONF had superfine structure when
compared to CONF. The cooling effect of the NFs on SS with inner diameter of 10 mm, initial Die Temperature (DT) of 212°C and
stretching velocity of 1.42 m/s was determined by measuring the transient temperature TT for 50 minutes at 10 minutes interval
The experimental results for the peak temperature and heat properties for AONF CONF and water were: 57.5 and 60.3
and 64. 5°C, 1.01kg m3 ⁄ , 0.601 poise, 1.93x10−4 mol/dm3
and 0.60 wm−1K
−1 and 1kg m3 ⁄ , 0.95poise, 0.00 mol/dm3 and 0.6
wm−1K
−1
, respectively. The values obtained indicate the efficient effect of optimum heat and heat transfer of Aluminum oxide
(AONF) and Copper Oxide (CONF) Nanofluids and water(H2O) on the stretching sheets. The aluminum oxide and coper oxide
nanoparticles base- fluids revealed improved cooling characteristics on the polyethylene stretching sheets with minimal defects
in comparison with water. The stretching sheets cooled with aluminum nanofluid exhibited the best cooling characteristics.
Keywords :
Functionality, Cooling Effect, Heat Properties, Nanofluid, Stretching Sheet.
References :
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This paper showcased the cooling effects of Aluminum oxide (AONF), Copper Oxide (CONF) Nanofluids and water
(H2O)on polyethylene stretching sheets for good surface finish and aesthetic look. The AONF had superfine structure when
compared to CONF. The cooling effect of the NFs on SS with inner diameter of 10 mm, initial Die Temperature (DT) of 212°C and
stretching velocity of 1.42 m/s was determined by measuring the transient temperature TT for 50 minutes at 10 minutes interval
The experimental results for the peak temperature and heat properties for AONF CONF and water were: 57.5 and 60.3
and 64. 5°C, 1.01kg m3 ⁄ , 0.601 poise, 1.93x10−4 mol/dm3
and 0.60 wm−1K
−1 and 1kg m3 ⁄ , 0.95poise, 0.00 mol/dm3 and 0.6
wm−1K
−1
, respectively. The values obtained indicate the efficient effect of optimum heat and heat transfer of Aluminum oxide
(AONF) and Copper Oxide (CONF) Nanofluids and water(H2O) on the stretching sheets. The aluminum oxide and coper oxide
nanoparticles base- fluids revealed improved cooling characteristics on the polyethylene stretching sheets with minimal defects
in comparison with water. The stretching sheets cooled with aluminum nanofluid exhibited the best cooling characteristics.
Keywords :
Functionality, Cooling Effect, Heat Properties, Nanofluid, Stretching Sheet.