The Enhanced Performance of Phase‐Change Materials via 3D Printing with Prickly Aluminum Honeycomb for Thermal Management of Ternary Lithium Batteries

Cao, Ming; Huang, Juhua; Liu, Ziqiang

doi:10.1155/2020/8167386

Cited by 35 publications

(11 citation statements)

References 34 publications

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“…Structure diagram of (a) honeycomb materials and (b) foam materials . This figure was reproduced with permission from refs and . Copyrights 2020 Hindawi and 2017 Elsevier, respectively.…”

Section: Porous Materials Used In a Lithium-ion Btmsmentioning

confidence: 99%

Porous-Material-Based Composite Phase Change Materials for a Lithium-Ion Battery Thermal Management System

et al. 2022

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A battery thermal management system (BTMS) plays a significant role in the thermal safety of a power lithium-ion battery. Research on phase change materials (PCMs) for a BTMS has drawn wide attention and has become the forefront of this scientific field. Several evident limitations exist in pure PCMs, such as poor thermal conductivity and low structural stability, while porous materials could reinforce PCMs for their superior thermal performance and robustness. Most related existing reviews focused on the thermal performances of a lithium-ion BTMS by different cooling methods. However, the thermal properties of porous materials and those based composite phase change materials (CPCMs) have not been summarized, which have much influence on the thermal management effect of battery modules. Thus, research on porous-material-based CPCMs used for a lithium-ion BTMS were reviewed in this paper. The kinds of PCMs and porous materials commonly used in a lithium-ion BTMS were introduced, and the thermophysical properties and robustness of porous-material-based CPCMs were systematically analyzed. Furthermore, the thermal management effects of a porous-materialbased CPCM on a lithium-ion battery were summarized. We discussed the enhancement effects on PCMs and the advantages and limitations of various porous materials commonly used in a lithium-ion BTMS. Finally, on the basis of the current research, this paper concluded the requirement of porous material for a CPCM in a lithium-ion BTMS and the expected future research directions of porous material, including looking for a potential porous carrier, intensifying heat transfer, and enhancing anti-vibration performance.

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“…Structure diagram of (a) honeycomb materials and (b) foam materials . This figure was reproduced with permission from refs and . Copyrights 2020 Hindawi and 2017 Elsevier, respectively.…”

Section: Porous Materials Used In a Lithium-ion Btmsmentioning

confidence: 99%

Porous-Material-Based Composite Phase Change Materials for a Lithium-Ion Battery Thermal Management System

et al. 2022

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“…3D Aluminum honeycomb [44] was also employed to enhance the thermal conductivity and mechanical properties of HDPE/EG/PW SSPCM where carbon fiber was added as heat-conductive additive. The SSPCM acquired an ultrahigh thermal conductivity (5.723 W/m K).…”

Section: Metal and Derivatives Metalmentioning

confidence: 99%

Fabrication of Organic Shape-stabilized Phase Change Material and Its Energy Storage Applications

Hu¹,

Wu²,

Liu³

et al. 2021

Eng. Sci.

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Organic phase change materials (OPCMs) are advanced energy storage materials with ability to storage and release thermal energy at constant temperature. Efficient energy storage systems using shape-stabilized PCMs (SSPCMs) are promising to adjust the gap between energy supply and demand. The performances of SSPCMs are influenced by multiple factors which are necessary to be considered in the fabrication process. In this regard, we summarized the desired properties for OPCMs and SSPCMs, then we systematically discussed the fabrication methods involving supporting materials, OPCMs and fillers. At last, we elaborated thermal storage applications of SSPCMs from three kinds of energy sources. This review intends to provide in-depth and constructive insights into the fabrication and energy storage applications of SSPCMs, thereby contributing to development and application of high-performance SSPCMs.

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“…Notably, the DFT theory developed by Rivelino et al [ 25 , 26 ], i.e., the synthetic growth method, is effective for the in-depth analysis of material stability and possible chemical reactions, and it has been applied to complex systems. In addition, although PW/EG/CF and SA–PA–LA/EG/CF CPCMs were involved in this study, the author has performed the application and material characterization of CPCM based on PW/EG many times in previous studies [ 27 , 28 , 29 ]; therefore, the characterization test materials involved in this study mainly included the SA–PA–LA ternary eutectic PCM and SA–PA–LA/EG/CF CPCM.…”

Section: Experiments Methodologymentioning

confidence: 99%

Preparation of SA–PA–LA/EG/CF CPCM and Its Application in Battery Thermal Management

et al. 2021

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To improve the heat dissipation efficiency of batteries, the eutectic mass ratios of each component in the ternary low-melting phase change material (PCM), consisting of stearic acid (SA), palmitic acid (PA), and lauric acid (LA), was explored in this study. Subsequently, based on the principle of high thermal conductivity and low leakage, SA–PA–LA/expanded graphite (EG)/carbon fiber (CF) composite phase change material (CPCM) was prepared. A novel double-layer CPCM, with different melting points, was designed for the battery-temperature control test. Lastly, the thermal management performance of non-CPCM, single-layer CPCM, and double-layer CPCM was compared via multi-condition charge and discharge experiments. When the mass ratio of SA to PA is close to 8:2, better eutectic state is achieved, whereas the eutectic mass ratio of the components of SA–PA–LA in ternary PCM is 29.6:7.4:63. SA–PA–LA/EG/CF CPCM formed by physical adsorption has better mechanical properties, thermal stability, and faster heat storage and heat release rate than PCM. When the CF content in SA–PA–LA/EG/CF CPCM is 5%, and the mass ratio of SA–PA–LA to EG is 91:9, the resulting SA–PA–LA/EG/CF CPCM has lower leakage rate and better thermal conductivity. The temperature control effect of single-layer paraffin wax (PW)/EG/CF CPCM is evident when compared to the no-CPCM condition. However, the double-layer CPCM (PW/EG/CF and SA–PA–LA/EG/CF CPCM) can further reduce the temperature rise of the battery, effectively control the temperature and temperature difference, and primarily maintain the battery in a lower temperature range during usage. After adding an aluminum honeycomb to the double-layer CPCM, the double-layer CPCM exhibited better thermal conductivity and mechanical properties. Moreover, the structure showed better battery temperature control performance, while meeting the temperature control requirements during the charging and discharging cycles of the battery.

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The Enhanced Performance of Phase‐Change Materials via 3D Printing with Prickly Aluminum Honeycomb for Thermal Management of Ternary Lithium Batteries

Cited by 35 publications

References 34 publications

Porous-Material-Based Composite Phase Change Materials for a Lithium-Ion Battery Thermal Management System

Porous-Material-Based Composite Phase Change Materials for a Lithium-Ion Battery Thermal Management System

Fabrication of Organic Shape-stabilized Phase Change Material and Its Energy Storage Applications

Preparation of SA–PA–LA/EG/CF CPCM and Its Application in Battery Thermal Management

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