[1] Zhang G., Li J., et al., Encapsulation of copper-based phase change materials for high temperature thermal energy storage. Solar Energy Materials and Solar Cells, 2014, 128: 131–137.
[2] Zeng J., Xuan Y., Duan H., Tin-silica-silver composite nanoparticles for medium-to-high temperature volumetric absorption solar collectors. Solar Energy Materials and Solar Cells, 2016, 157: 930–936.
[3] Liu X., Wang X., Zhou B., et al., Size-controlled synthesis of Cu2-xE (E=S, Se) nanocrystals with strong tunable near-infrared localized surface plasmon resonance and high conductivity in thin films. Advanced Functional Materials, 2013, 23(10): 1256–1264.
[4] Sau T.K., Rogach A.L., Jäckel F., et al., Properties and applications of colloidal nonspherical noble metal nanoparticles. Advanced Materials, 2010, 22(16): 1805–1825.
[5] Zalba B., Marın J.M., Cabeza L.F., et al., Review on thermal energy storage with phase change: materials, heat transfer analysis and applications. Applied Thermal Engineering, 2003, 23(3): 251–283.
[6] Fok S.C., Shen W., Tan F.L., Cooling of portable hand-held electronic devices using phase change materials in finned heat sinks. International Journal of Thermal Sciences, 2010, 49(1): 109–117.
[7] Liu Z.L., Sun X., Ma C.F., Experimental investigations on the characteristics of melting processes of stearic acid in an annulus and its thermal conductivity enhancement by fins. Energy Conversion and Management, 2005, 46: 959–969.
[8] Fan L.W., Khodadadi J.M., Thermal conductivity enhancement of phase change materials for thermal energy storage: A review. Renewable and Sustainable Energy Reviews, 2011, 15(1): 24–46.
[9] Zhang L., Zhou K., Wei Q., et al., Thermal conductivity enhancement of phase change materials with 3D porous diamond foam for thermal energy storage. Applied Energy, 2019, 233: 208–219.
[10] Khodadadi J.M., Hosseinizadeh S.F., Nanoparticle- enhanced phase change materials (NEPCM) with great potential for improved thermal energy storage. International Communications in Heat and Mass Transfer, 2007, 34(5): 534–543.
[11] Park S., Lee Y., Kim Y.S., et al., Magnetic nanoparticle-embedded PCM nanocapsules based on paraffin core and polyurea shell. Colloids and Surfaces A: Physicochemical and Engineering Aspects, 2014, 450: 46–51.
[12] Cingarapu S., Singh D., Timofeeva E.V., et al., Nanofluids with encapsulated tin nanoparticles for advanced heat transfer and thermal energy storage. International Journal of Energy Research, 2014, 38(1): 51–59.
[13] Lai S., Guo J., et al., Size-dependent melting properties of small tin particles: nanocalorimetric measurements. Physical Review Letters, 1996, 77(1): 99.
[14] Zhang L., Wei Q., An J., et al., Construction of 3D interconnected diamond networks in Al-matrix composite for high-efficiency thermal management. Chemical Engineering Journal, 2020, 380: 122551.
[15] Saka H., Nishikawa Y., Imura T., Melting temperature of in particles embedded in an Al matrix. Philosophical Magazine A, 1988, 57(6): 895–906.
[16] Zhong J., Zhang L.H., Jin Z.H., et al., Superheating of Ag nanoparticles embedded in Ni matrix. Acta Materialia, 2001, 49(15): 2897–2904.
[17] Lin Z.Z., Huang C.L., Zhen W.K., Huang Z., Enhanced thermal conductivity of metallic nanoparticle packed bed by sintering treatment. Applied Thermal Engineering, 2017, 119: 425–429.
[18] Rösner H., Scheer P., Weissmüller J., et al., The impact of particle morphology on the melting characteristics of matrix-embedded Pb nanocrystals. Philosophical Magazine Letters, 2003, 83(8): 511–523.
[19] Johari G.P., Thermodynamic contributions from pre-melting or pre-transformation of finely dispersed crystals. Philosophical Magazine A, 1998, 77(6): 1367– 1380.
[20] Li F.Y., Shi S.Y., Ma W.G., Zhang X., A switched vibrating-hot-wire method for measuring the viscosity and thermal conductivity of liquids. Review of Scientific Instruments, 2019, 90(7): 075105.
[21] Li Z., Hu N., Tu J., Fan L., Experimental investigation of heat storage and heat transfer rates during melting of nano-enhanced phase change materials (NePCM) in a differentially-heated rectangular cavity. Journal of Thermal Science, 2020, 29(2): 503–511.
[22] Wu X., Han Q., Thermal conductivity of defective graphene: an efficient molecular dynamics study based on graphics processing units. Nanotechnology, 2020, 31(21): 215708.
[23] Yang Y., Zhong D., Liu Y., et al., Thermal transport in graphene oxide films: Theoretical analysis and molecular dynamics simulation. Nanomaterials, 2020, 10(2): 285.
[24] Amarnath R., Bhargavi K.S., Kubakaddi S.S.,
Thermoelectric transport properties in 3D Dirac semimetal Cd3As2. Journal of Physics: Condensed Matter, 2020, 32(22): 225704.
[25] Bruns D., Nojeh A., Phani A.S., et al., Heat transport in carbon nanotubes: Length dependence of phononic conductivity from the Boltzmann transport equation and molecular dynamics. Physical Review B, 2020, 101(19): 195408.
[26] Xiao Y., Xu D., Medina F.J., et al., Thermal studies of nanoporous thin films with added periodic nanopores—A new approach to evaluate the importance of phononic effects. Materials Today Physics, 2020, 12: 100179.
[27] Jafari K., Fatemi M.H., Application of nano-quantitative structure-property relationship paradigm to develop predictive models for thermal conductivity of metal oxide-based ethylene glycol nanofluids. Journal of Thermal Analysis and Calorimetry, 2020, 142(3): 1335–1344.
[28] Huang C.L., Lin Z.Z., Luo D.C., et al., Electronic thermal conductivity of 2-dimensional circular-pore metallic nanoporous materials. Physics Letters A, 2016, 380(38): 3103–3106.
[29] Huang C.L., Qian X., Yang R.G., Influence of nanoparticle size distribution on the thermal conductivity of particulate nanocomposites. EPL (Europhysics Letters), 2017, 117(2): 24001.
[30] Lin Z.Z., Huang C.L., Huang Z., et al., Surface/interface influence on specific heat capacity of solid, shell and core-shell nanoparticles. Applied Thermal Engineering, 2017, 127: 884–888.
[31] Huang C.L., Feng Y.H., Zhang X.X., et al., Specific heat capacity of nanoporous Al2O3. EPL, 2013, 103(5): 56002.
[32] Feng B., Li Z.X., Zhang X., Prediction of size effect on thermal conductivity of nanoscale metallic films. Thin Solid Films, 2009, 517(8): 2803–2807.
[33] Bolot R., Antou G., Montavon G., et al., A two-dimensional heat transfer model for thermal barrier coating average thermal conductivity computation. Numerical Heat Transfer, 2005, 47(9): 24.
[34] Yang R.G., Chen G., Thermal conductivity modeling of periodic two-dimensional nanocomposites. Physical Review B, 2004, 69(19): 195316.
[35] Hua Y.C., Cao B.Y., Phonon ballistic-diffusive heat conduction in silicon nanofilms by Monte Carlo simulations. International Journal of Heat and Mass Transfer, 2014, 78: 755–759.
[36] Ye Z.Q., Cao B.Y., Guo Z.Y., High and anisotropic thermal conductivity of body-centered tetragonal C4 calculated using molecular dynamics. Carbon, 2014, 66: 567–575.
[37] Guo Y.K., Guo Z.Y., Liang X.G., Three-dimensional molecular dynamics simulation on heat propagation in liquid argon. Chinese Physics Letters, 2001, 18(1): 71–73.
[38] Huang C.L., Feng Y.H., Zhang X.X., et al., Thermal conductivity of metallic nanoparticle. Acta Physica Sinica, 2013, 62(02): 498–502.
[39] Gu X.K., Cao B.Y., Thermal conductivity of dielectric nanowires with different cross-section shapes. Chinese Physics, 2007, 16(12): 3777.
[40] Yang C.C., Xiao M.X., Li W., et al., Size effects on Debye temperature, Einstein temperature, and volume thermal expansion coefficient of nanocrystals. Solid State Communications, 2006, 139(4): 148–152.
[41] Han Z., Fina A., Thermal conductivity of carbon nanotubes and their polymer nanocomposites: A review. Progress in Polymer Science, 2011, 36(7): 914–944.
[42] Cingarapu S., Singh D., Timofeeva E.V., et al., Nanofluids with encapsulated tin nanoparticles for advanced heat transfer and thermal energy storage. International Journal of Energy Research, 2014, 38(1): 51–59.
[43] Cingarapu S., Singh D., Timofeeva E.V., et al., Nanofluids with encapsulated tin nanoparticles for advanced heat transfer and thermal energy storage. International Journal of Energy Research, 2014, 38(1): 51–59.
[44] Lin Z.Z., Huang C.L., Luo D.C., et al., Thermal performance of metallic nanoparticles in air. Applied Thermal Engineering, 2016, 105: 686–690.
[45] Myers T.G., Mathematical modelling of phase change at the nanoscale. International Communications in Heat and Mass Transfer, 2016, 76: 59–62.
[46] Lan Y.Y., Huang C.L., Effect of nano-copper-structure on thermal energy storage performance of phase change materials-copper composite. Journal of Energy Storage, 2020, 31: 101681.
