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Online proceedings - EDA Publishing Association

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Case coverSupercapacitor n°2Electric cables24-26 September 2008, Rome, Italy(CBD)-elctrochemical/thermal coupled modeling and multi-scalemodeling», Journal of Power Sources, vol. 110, 2002, p.364-376.[7] Guillemet Ph., Dugas R., Scudeller Y., Brousse Th, 2005« Electro-Thermal Analysis of a Hybrid Activated Carbon/MnO2Aqueous Electrochemical Capacitor », E.C.S., 208th meeting, Quebec,May 2005.[8] Guillemet Ph., Scudeller Y., Brousse Th, « Multi-level reducedorderthermal modelling of electrochemical capacitors », Journal ofPower Sources, vol. 157, 2006, p.630-640.[9] Degiovanni A., « Thermal conduction in a multilayer slab withinternal sources using a quadripole method », International Journal ofHeat and Mass Transfer, vol. 31, n°3, p. 553-557, March 1988.ElectricalinsulationInterconnectSupercapacitor n°1Figure 7: Temperature distribution for double-layer capacitor module, ascalculated by the Finite Elements Method for the module level.II. CONCLUSIONA compact thermal modelling of Electric Double-Layer-Capacitors has been presented. Compact models are suitablefor determining static and dynamic temperature undercycling, at any point of the components, as a function oftopology, materials properties, and operating conditions.Thermal circuits have been created by combining differentbranches of Multi-Ports Matrix Elements referring to eachdirection of heat transport. Circuits were developed byconsidering a uniform volume heat generation and, for eachbranch, a one-directional thermal transport. Performance ofthe compact modelling has been investigated in terms ofaccuracy and computational cost. It was found a goodagreement with simulations by the Finite-Elements Method.Deviation in temperature did not exceed 8 %. Compactthermal models can be suitable for most of energy storagedevices such as capacitors and rechargeable batteries.REFERENCES[1] Chu A., Braatz P., « Comparison of commercial supercapacitorsand high power lithium ion batteries for power-assist applications inhybrid electric vehicles I. Initial characterization », Journal of powerSources, vol. 112, 2002, p. 236-246.[2] Conway B.E., « Electrochemical Supercapacitors », ScientificFundamentals and Technological Applications, Kluwer AcademicPlenum Press, New York, 1999.[1] Burke A., « Ultracapacitors: why, how, and where is thetechnology », Journal of Power Sources, vol. 91, 2000, p. 37-50.[4] Schiffer J., Linzen D., Sauer D.U., « Heat generation in doublelayer capacitors », Journal of Power Sources, vol. 160, 2006, p.765-772.[5] Al Hallaj S., Maleki H., Hong J.S., « Thermal modeling anddesign considerations of litium-ion batteries», Journal of Power Sources,vol. 83, 1999, p.1-8.[6] Wang C.Y., Srinivasan V., «Computational battery dynamics©<strong>EDA</strong> <strong>Publishing</strong>/THERMINIC 2008 122ISBN: 978-2-35500-008-9

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