Manufacturing and potential applications of lattice structures in thermal systems: A comprehensive review of recent advances. (1st December 2022)
- Record Type:
- Journal Article
- Title:
- Manufacturing and potential applications of lattice structures in thermal systems: A comprehensive review of recent advances. (1st December 2022)
- Main Title:
- Manufacturing and potential applications of lattice structures in thermal systems: A comprehensive review of recent advances
- Authors:
- Sajjad, Uzair
Rehman, Tauseef-ur
Ali, Mubasher
Park, Cheol Woo
Yan, Wei-Mon - Abstract:
- Highlights: Manufacturing and thermal applications of the lattice structure have been discussed in detail. Four classes of materials (polymers, ceramics, liquid resins and, metals and alloys) are considered for the detailed review. Pressure drop is not significant for lattice structure, unlike metallic foams. Thermo-hydraulic performance of the thermal systems is improved. Abstract: Lattice structures are a class of cellular materials with enhanced thermomechanical properties compared with their counterpart cellular materials such as foams. They have recently attracted researchers towards implementation in various engineering applications due to their diverse fabrication techniques driven by the advancement in additive manufacturing technology. This article reviews the four classes of materials (polymers, ceramics, liquid resins, and metals and alloys) used to fabricate the various lattice structures employed in different thermal applications. Firstly, the classification and description of the lattice structures are concluded, along with their applications in several domains in general and particularly in thermal systems. Secondly, the materials and fabrication techniques used for lattice structure manufacturing are briefly reviewed. Thirdly, extensive literature analysis is carried out on the heat transfer characteristics of numerous categories of lattice structures. Results revealed that lattice structures are the most promising media to enhance the thermo-hydraulicHighlights: Manufacturing and thermal applications of the lattice structure have been discussed in detail. Four classes of materials (polymers, ceramics, liquid resins and, metals and alloys) are considered for the detailed review. Pressure drop is not significant for lattice structure, unlike metallic foams. Thermo-hydraulic performance of the thermal systems is improved. Abstract: Lattice structures are a class of cellular materials with enhanced thermomechanical properties compared with their counterpart cellular materials such as foams. They have recently attracted researchers towards implementation in various engineering applications due to their diverse fabrication techniques driven by the advancement in additive manufacturing technology. This article reviews the four classes of materials (polymers, ceramics, liquid resins, and metals and alloys) used to fabricate the various lattice structures employed in different thermal applications. Firstly, the classification and description of the lattice structures are concluded, along with their applications in several domains in general and particularly in thermal systems. Secondly, the materials and fabrication techniques used for lattice structure manufacturing are briefly reviewed. Thirdly, extensive literature analysis is carried out on the heat transfer characteristics of numerous categories of lattice structures. Results revealed that lattice structures are the most promising media to enhance the thermo-hydraulic performance of heat-transferring systems in terms of augmenting the heat transfer rate and reducing the pressure drop. Meanwhile, some of its designs increase its thermal resistance, suitable for application in energy storage systems. On the basis of critical analysis of the fabrication, characterization and applications, several important conclusions are presented, along with the future research directions, to fill the gap in this area of research. Graphical abstract: Image, graphical abstract … (more)
- Is Part Of:
- International journal of heat and mass transfer. Volume 198(2022)
- Journal:
- International journal of heat and mass transfer
- Issue:
- Volume 198(2022)
- Issue Display:
- Volume 198, Issue 2022 (2022)
- Year:
- 2022
- Volume:
- 198
- Issue:
- 2022
- Issue Sort Value:
- 2022-0198-2022-0000
- Page Start:
- Page End:
- Publication Date:
- 2022-12-01
- Subjects:
- Lattice structures -- Additive manufacturing -- Heat transfer -- Optimization -- Pressure drop
3DPT 3D printing technology -- ABS acrylonitrile butadiene styrene -- AM additive manufacturing -- BCC body-centred cubic -- BCC-PF body-centred cubic pin fin -- BCCZ body-centred cubic-z -- CAGs ceramic aerogels -- CE inertia coefficient -- CFD computational fluid dynamics -- CHTP comprehensive heat transfer performance -- CMCs ceramic matrix composites -- CNTs carbon nanotubes -- CPI cells per inch -- CTE coefficient of thermal expansion -- DDHD dodecahedron -- DfAM design-for-additive-manufacturing -- DHPB direct Hopkinson pressure bar -- DIC digital image correlation -- DLS digital light synthesis -- DMLS direct melting laser sintering -- EBM electronic beam melting -- ETC effective thermal conductivity -- EXP expansion -- FCC face-centered cubic -- FCCZ face-centred cubic-z -- FD face diagonal -- FDM fused deposition modelling -- FE finite element -- FGC functionally graded cellular -- FMF finned metal foam -- FS-PCM form-stable phase change material -- FVM finite volume method -- GPM gradient porous media -- HHF high heat flux -- HTC heat transfer coefficient -- HTD heat transfer deterioration -- ITI infrared thermal imaging -- L-PBF laser powder bed fusion -- LBM lattice Boltzmann method -- LCSPs composite corrugated lattice core sandwich panels -- LFM lattice-frame material -- M2AlB2 ternary layered transition metal borides -- MEPCM microencapsulated phase change material -- MJF multijet fusion -- MLPM multi-layered porous media -- NTE negative thermal expansion -- OC open cell -- OCF open cell foam -- OTL octet truss lattice -- PA12 polyamide 12 -- PBF powder bed fusion -- PCM phase change material -- PEC performance evaluation criteria -- PFCs plasma-facing components -- PIP polymer infiltration and pyrolysis -- PLA polylactic acid -- POCS periodic open cellular structures -- PPI pores per inch -- PR poisson's ratio -- PSO particle swarm optimisation -- PTE positive thermal expansion -- PVA polyvinyl alcohol -- q* volumetric heat flux density -- REVs representative element volumes -- RPU relative property units -- RVC reticulated vitreous carbon -- SLA stereolithography -- SLM selective laser melting -- SLS selective laser sintering -- SPM structured porous material -- TDC tetradecane -- TES thermal energy storage -- TFSI thermal fluid-structure interaction -- THD tetrahedral -- TKD tetrakaidecahedron -- TLCs thermochromic liquid crystals -- TLP transient liquid phase -- TMSs thermal management systems -- TPS thermal protection systems -- TSDT third-order shear deformation theory -- TSPF thermal-structural performance factor -- UA overall thermal conductance -- VIP vacuum insulation panel -- WBK wire-woven bulk kagome -- ZrW2O8 zirconium tungstate -- ZTE zero thermal expansion
Heat -- Transmission -- Periodicals
Mass transfer -- Periodicals
Chaleur -- Transmission -- Périodiques
Transfert de masse -- Périodiques
Electronic journals
621.4022 - Journal URLs:
- http://www.sciencedirect.com/science/journal/00179310 ↗
http://www.elsevier.com/journals ↗ - DOI:
- 10.1016/j.ijheatmasstransfer.2022.123352 ↗
- Languages:
- English
- ISSNs:
- 0017-9310
- Deposit Type:
- Legaldeposit
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