Research Article

Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction

Volume: 8 Number: 2 March 11, 2022
  • S. Jagadha
  • D. Gopal
  • P. Vijay Kumar
  • N. Kıshan
  • P. Durgaprasad *
EN

Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction

Abstract

In hot and dry climates, evaporative cooling of the air by water spray can be applied in several requirements, such as evaporative condensers which the airflow is precooled by the water spray before it reaches the condenser. The interaction between water droplets and the air is a complicated two-phase flow that is affected by the several parameters. Here, an Eulerian-Lagrangian 3D model was developed to investigate the influence of important parameters on spray cooling performance in a rectangular duct. The evaluated parameters include the number of nozzles, inlet air flow rate, and spray water flow rate. The results represented that growth in the number of nozzles causes a reduction in the spray cooling efficiency. Thi s is due to decrease of droplets retention time within the duct by increasing the number of nozzles at a constant total spray flow rate in the cases. The maximum and minimum spray cooling efficiency belong to the cases with one nozzle at water flow rate of 20 l/h and four nozzle at water flow rate of 5 l/h, respectively. The difference between spray cooling efficiency at 3 and 4 number of nozzles is less than 1.8%. Moreover, increasing the air flow rate from 0.5 l/h to 2 l/h (by 300%) makes a decrease in the spray cooling efficiency up to 58.6%.

Keywords

References

  1. The article references can be accessed from the .pdf file.

Details

Primary Language

English

Subjects

Thermodynamics and Statistical Physics, Transportation, Logistics and Supply Chains

Journal Section

Research Article

Publication Date

March 11, 2022

Submission Date

July 26, 2020

Acceptance Date

October 12, 2020

Published in Issue

Year 2022 Volume: 8 Number: 2

APA
Jagadha, S., Gopal, D., Kumar, P. V., Kıshan, N., & Durgaprasad, P. (2022). Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction. Journal of Thermal Engineering, 8(2), 286-298. https://doi.org/10.18186/thermal.1086264
AMA
1.Jagadha S, Gopal D, Kumar PV, Kıshan N, Durgaprasad P. Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction. Journal of Thermal Engineering. 2022;8(2):286-298. doi:10.18186/thermal.1086264
Chicago
Jagadha, S., D. Gopal, P. Vijay Kumar, N. Kıshan, and P. Durgaprasad. 2022. “Three Dimensional MHD Nanoluid Stagnation Point Low Withhigher Order Chemical Reaction”. Journal of Thermal Engineering 8 (2): 286-98. https://doi.org/10.18186/thermal.1086264.
EndNote
Jagadha S, Gopal D, Kumar PV, Kıshan N, Durgaprasad P (March 1, 2022) Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction. Journal of Thermal Engineering 8 2 286–298.
IEEE
[1]S. Jagadha, D. Gopal, P. V. Kumar, N. Kıshan, and P. Durgaprasad, “Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction”, Journal of Thermal Engineering, vol. 8, no. 2, pp. 286–298, Mar. 2022, doi: 10.18186/thermal.1086264.
ISNAD
Jagadha, S. - Gopal, D. - Kumar, P. Vijay - Kıshan, N. - Durgaprasad, P. “Three Dimensional MHD Nanoluid Stagnation Point Low Withhigher Order Chemical Reaction”. Journal of Thermal Engineering 8/2 (March 1, 2022): 286-298. https://doi.org/10.18186/thermal.1086264.
JAMA
1.Jagadha S, Gopal D, Kumar PV, Kıshan N, Durgaprasad P. Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction. Journal of Thermal Engineering. 2022;8:286–298.
MLA
Jagadha, S., et al. “Three Dimensional MHD Nanoluid Stagnation Point Low Withhigher Order Chemical Reaction”. Journal of Thermal Engineering, vol. 8, no. 2, Mar. 2022, pp. 286-98, doi:10.18186/thermal.1086264.
Vancouver
1.S. Jagadha, D. Gopal, P. Vijay Kumar, N. Kıshan, P. Durgaprasad. Three dimensional MHD nanoluid stagnation point low withhigher order chemical reaction. Journal of Thermal Engineering. 2022 Mar. 1;8(2):286-98. doi:10.18186/thermal.1086264

Cited By

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