General Information
    • ISSN: 1793-8201 (Print), 2972-4511 (Online)
    • Abbreviated Title: Int. J. Comput. Theory Eng.
    • Frequency: Quarterly
    • DOI: 10.7763/IJCTE
    • Editor-in-Chief: Prof. Mehmet Sahinoglu
    • Associate Editor-in-Chief: Assoc. Prof. Alberto Arteta, Assoc. Prof. Engin Maşazade
    • Managing Editor: Ms. Mia Hu
    • Abstracting/Indexing: Scopus (Since 2022), INSPEC (IET), CNKI,  Google Scholar, EBSCO, etc.
    • Average Days from Submission to Acceptance: 192 days
    • APC: 800 USD
    • E-mail: ijcte@iacsitp.com
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Editor-in-chief
Prof. Mehmet Sahinoglu
Computer Science Department, Troy University, USA
I'm happy to take on the position of editor in chief of IJCTE. We encourage authors to submit papers concerning any branch of computer theory and engineering.

IJCTE 2014 Vol.6(3): 215-219 ISSN: 1793-8201
DOI: 10.7763/IJCTE.2014.V6.865

Towards a Computational Model for Heat Transfer in Electrolytic Cells

Vikram K. Narayana, Olivier Serres, Jason Lau, Stuart Licht, and Tarek El-Ghazawi

Abstract—Study of the heat transfer processes is an important component in understanding the energy balance of an electrolytic cell. Computational modeling of the heat transfer is thus necessary for electrochemical analyses. This paper describes our efforts in developing a viable computational model for heat transfer, in certain green electrolytic cells that are driven by new molten salt chemistry discovered at the George Washington University. As part of our initial efforts, we model the heat transfer in a simplified electrolytic cell, and then obtain electrical equivalent networks. Of particular interest is the heat transfer in the presence of an endothermic reaction, which prevents the use of simple lumped resistor components for the electrical counterparts. In this paper, we derive closed form solutions using both the thermal and electrical forms of the model, and demonstrate their functional equivalence. We are able to show that instead of solving a second order differential equation, the electrical equivalent model allows for numerical computation of the steady state heat flow. The electrical analogue thus sets the stage for simulation of the heat transfer on parallel computers, and also enables the model to be extended for more complex structures.

Index Terms—Thermal modeling, electrolytic cell, heat transfer, electrical equivalence.

V. K. Narayana, O. Serres, and T. El-Ghazawi are with the Department of Electrical and Computer Engineering, The George Washington University, Washington, DC, 20052 USA (e-mail: vikramkn@ieee.org, serres@gwu.edu, tarek@gwu.edu).
J. Lau and S. Licht are with the Department of Chemistry, The George Washington University, USA (e-mail: jclau@gwu.edu, slicht@gwu.edu).

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Cite:Vikram K. Narayana, Olivier Serres, Jason Lau, Stuart Licht, and Tarek El-Ghazawi, "Towards a Computational Model for Heat Transfer in Electrolytic Cells," International Journal of Computer Theory and Engineering vol. 6, no. 3, pp. 215-219, 2014.


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