Innovative hybrid nano/dielectric fluid cooling system for the new cylindrical shaped Li-ion batteries
Introduction
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Section snippets
Numerical model
Result and discussion
Conclusion
Declaration of competing interest
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Assessment of the hydro-thermal performance for a novel hexagonal mini-channel heat sink for cooling a cylindrical heat source
2024, International Journal of ThermofluidsCitation Excerpt :Air cooling is an easy and low cost method, but it has its limitations due to its poor cooling performance [8-10]. Liquid cooling can be achieved through direct cooling with the battery cells, such as flooding mineral fluids, or indirectly with the battery cells using the heat sink [11-13]. Mist cooling uses mist instead of dry air to cool the battery surface by using an ultrasonic fog generator.
Single-phase static immersion-cooled battery thermal management system with finned heat pipes
2024, Applied Thermal EngineeringCitation Excerpt :By optimizing the dielectric fluids Li et al [35,36] designed an organic sealant wrapped around the surface of the battery and cooled the battery using hydro glycol solution. Gu [37], Tousi, and Najafi et al [38] achieved cooling optimization by using dielectric nanofluids. By increasing the phase transition, Zhou et al [39], Wang et al [40], and Li et al [41] set up a condenser on the battery module, where the immersion liquid is vaporized on the surface of the battery and condensed by the condenser to achieve more efficient and uniform heat dissipation.
Impact of hybrid nanofluids on thermal management of cylindrical battery modules: A numerical study
2024, Journal of Energy StorageCitation Excerpt :By blending diverse nanoparticles, these fluids enhance thermal conductivity and accelerate heat transfer processes, resulting in heightened efficiency of cooling systems. A revolutionary hybrid nano/dielectric fluid cooling mechanism designed for innovative cylindrical Li-ion batteries has been explored by [35]. The findings showed that employing a 4 % concentration of alumina nanofluid with a flow speed of 0.3 m/s notably enhanced heat transfer efficiency in comparison to utilizing water with a flow speed of 0.2 m/s within the indirect cooling passages.
A channel with hybrid twisted tapes for immersion cooling battery thermal management system
2024, Journal of Energy StorageCitation Excerpt :This arrangement facilitates heat transfer without the intermediary of other thermal conductive media, effectively diminishing the contact thermal resistance [8,9]. Notable examples include the air cooling (AC) and the liquid immersion cooling (LIC) [10]. The air cooling battery thermal management system (ACBTMS), characterized by its simplicity of structure and ease of installation, is extensively adopted in the initial stages of EV development.
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