2022
DOI: 10.1016/j.compstruct.2022.116215
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Heat transfer property of C/SiC composite pyramidal lattice core sandwich structures

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Cited by 10 publications
(2 citation statements)
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“…In recent years, the thermal analysis of sandwich structures has become a hot issue. Kantha [1] et al conducted a thermal analysis of honeycomb sandwich panels using the finite element method; Fazzolari [2] et al investigated the effect of temperature distribution along the thickness direction on the thermal stability of sandwich panels made of functional gradient materials; Zhang [3] et al experimentally investigated the effect of high temperature on the stability of sandwich structures; Cheng [4] et al analyzed the one-dimensional thermal conductivity of lattice-core sandwich structures perpendicular to the plane direction and established a theoretical model to predict the equivalent thermal conductivity; Xi [5] et al investigated the effect of temperature on the penetration behavior of aluminum foam sandwich panels through numerical simulations; Wang [6] et al prepared a sandwich structure composite material with composite core and C/SiC laminates that can effectively control the heat radiation; Wei [7] et al investigated the heat transfer mechanism of ZrO2 and ZrB2 corrugated sandwich structures; Protsenko [8] et al experimentally investigated the effect of heat treatment on the physical and mechanical properties of sandwich structures; Li [9] et al developed an equivalent thermal conductivity prediction method and numerically analyzed the heat transfer behavior of an integrated thermal protective system with a C/SiC composite corrugated-core sandwich structure; Le [10] et al proposed a bionic corrugated-core sandwich structure and performed a thermodynamic analysis; Qi [11] et al presented a thermodynamic analysis of an integrated corrugated-core sandwich structure composed of GNP Ni and CNT with excellent electromagnetic shielding capability; Yuan [12] et al designed an experimental setup to evaluate the effective thermal conductivity of metal honeycomb sandwich structures at different temperatures; Shi [13] et al designed an all-composite sandwich structure with corrugated core and developed a one-dimensional analytical model and a two-dimensional finite element model for heat transfer analysis; Wang [14] et al proposed an analytical model for predicting the equivalent thermal conductivity of sandwich structures with pyramidal lattice cores of C/SiC composites, and investigated the heat transfer properties; Xiao [15] et al proposed an open-cell metal-foam corrugated sandwich structure, and investigated its heat transfer properties.…”
Section: Introductionmentioning
confidence: 99%
“…In recent years, the thermal analysis of sandwich structures has become a hot issue. Kantha [1] et al conducted a thermal analysis of honeycomb sandwich panels using the finite element method; Fazzolari [2] et al investigated the effect of temperature distribution along the thickness direction on the thermal stability of sandwich panels made of functional gradient materials; Zhang [3] et al experimentally investigated the effect of high temperature on the stability of sandwich structures; Cheng [4] et al analyzed the one-dimensional thermal conductivity of lattice-core sandwich structures perpendicular to the plane direction and established a theoretical model to predict the equivalent thermal conductivity; Xi [5] et al investigated the effect of temperature on the penetration behavior of aluminum foam sandwich panels through numerical simulations; Wang [6] et al prepared a sandwich structure composite material with composite core and C/SiC laminates that can effectively control the heat radiation; Wei [7] et al investigated the heat transfer mechanism of ZrO2 and ZrB2 corrugated sandwich structures; Protsenko [8] et al experimentally investigated the effect of heat treatment on the physical and mechanical properties of sandwich structures; Li [9] et al developed an equivalent thermal conductivity prediction method and numerically analyzed the heat transfer behavior of an integrated thermal protective system with a C/SiC composite corrugated-core sandwich structure; Le [10] et al proposed a bionic corrugated-core sandwich structure and performed a thermodynamic analysis; Qi [11] et al presented a thermodynamic analysis of an integrated corrugated-core sandwich structure composed of GNP Ni and CNT with excellent electromagnetic shielding capability; Yuan [12] et al designed an experimental setup to evaluate the effective thermal conductivity of metal honeycomb sandwich structures at different temperatures; Shi [13] et al designed an all-composite sandwich structure with corrugated core and developed a one-dimensional analytical model and a two-dimensional finite element model for heat transfer analysis; Wang [14] et al proposed an analytical model for predicting the equivalent thermal conductivity of sandwich structures with pyramidal lattice cores of C/SiC composites, and investigated the heat transfer properties; Xiao [15] et al proposed an open-cell metal-foam corrugated sandwich structure, and investigated its heat transfer properties.…”
Section: Introductionmentioning
confidence: 99%
“…Honeycomb lattices enhancing the heat transportation of nanoparticles have been investigated showing good results 9 . A predictive model for heat flow around a C/SiC composite pyramidal lattice structure is proposed by Wang et al 10 . Furthermore, effect of lattice presence in tubes on fluid flow and heat transfer enhancement, particularly with supercritical CO2, have been explored by Shi et al 11 .…”
Section: Introductionmentioning
confidence: 99%