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KwangIl Ri,
ChoWon Kim,
Yong Il Won,
- Faculty,, Department of Chemical Engineering, KimChaek University of Technology, Pyongyang,, DPR Korea
- Faculty,, Department of Chemical Engineering, KimChaek University of Technology, Pyongyang,, DPR Korea
- Faculty,, Department of Chemical Engineering, KimChaek University of Technology, Pyongyang,, DPR Korea
Abstract document.addEventListener(‘DOMContentLoaded’,function(){frmFrontForm.scrollToID(‘frm_container_abs_114190’);});Edit Abstract & Keyword
Thermal batteries are special electrochemical systems in which a great amount of energy is delivered during a relatively short period of time. The holding time of the thermal battery’s working temperature and cell temperature define its discharge life. Thermal batteries have advantages comparing other type of batteries, so they are used for several purposes including military field.
Keywords: thermal batteries, thermal design, thermal insulation
[This article belongs to Journal of Thermal Engineering and Applications (jotea)]
KwangIl Ri, ChoWon Kim, Yong Il Won. Thermal Behavior and Insulation Strategies for Li-FeS₂ Thermal Batteries: An ANSYS Simulation Study. Journal of Thermal Engineering and Applications. 2024; 11(03):1-10.
KwangIl Ri, ChoWon Kim, Yong Il Won. Thermal Behavior and Insulation Strategies for Li-FeS₂ Thermal Batteries: An ANSYS Simulation Study. Journal of Thermal Engineering and Applications. 2024; 11(03):1-10. Available from: https://journals.stmjournals.com/jotea/article=2024/view=0
References
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Doughty DH, Butler PC, Jungst RG, Roth EP. Lithium battery thermal models. Journal of power sources. 2002 Aug 22;110(2):357-63. [2] Guidotti RA, Masset P. Thermally activated (“thermal”) battery technology: Part I: An overview. Journal of Power Sources. 2006 Oct 27;161(2):1443-9. [3] Bergheau JM, Fortunier R. Finite element simulation of heat transfer. John Wiley & Sons; 2013 Mar 1. [4] Jiang F, Sousa AC. Effective thermal conductivity of heterogeneous multi-component materials: an SPH implementation. Heat and Mass transfer. 2007 Mar; 43:479-91. [5] Masset P, Guidotti RA. Thermal activated (thermal) battery technology: Part II. Molten salt electrolytes. Journal of power sources. 2007 Jan 10;164(1):397-414. [6] Böckh P, Wetzel T. Heat transfer: basics and practice. Springer Science & Business Media; 2011 Oct 12. [7] Freitas GC, Peixoto FC, Vianna Jr AS. Simulation of a thermal battery using Phoenics®. Journal of Power Sources. 2008 Apr 15;179(1):424-9. [8] Schoeffert S. Thermal batteries modeling, self-discharge and self-heating. Journal of power sources. 2005 Mar 24;142(1-2):361-9. [9] Krieger F, Ding M. Heat transfer in the LCCM thermal reserve battery. Adelphi (MD): Army Research Laboratory (US). 2009. [10] Stolarski T, Nakasone Y, Yoshimoto S. Engineering analysis with ANSYS software. Butterworth-Heinemann; 2018 Jan 2. [11] Masset PJ, Guidotti RA. Thermal activated (“thermal”) battery technology: Part IIIa: FeS2 cathode material. Journal of Power Sources. 2008 Mar 1;177(2):595-609. [12] Masset PJ, Guidotti RA. Thermal activated (“thermal”) battery technology: Part IIIb. Sulfur and oxide-based cathode materials. Journal of Power Sources. 2008 Mar 15;178(1):456-66. [13] Guidotti RA, Masset PJ. Thermally activated (“thermal”) battery technology: Part IV. Anode materials. Journal of Power Sources. 2008 Aug 15;183(1):388-98.
Journal of Thermal Engineering and Applications
| Volume | 11 |
| Issue | 03 |
| Received | 03/10/2024 |
| Accepted | 14/10/2024 |
| Published | 19/11/2024 |