Fig. 1 ( a ) Simulated temperature distribution of a Gaussian laser spot excitation at the initial time; ( b ) simulated temperature distribution of the Gaussian laser spot excitation at the end time. The inset of ( b ) is Fourier transformation of the simulated temperatures at three different tim... More about this image found in ( a ) Simulated temperature distribution of a Gaussian laser spot excitatio...

Fig. 2 ( a ) Simulated temperature distribution of a speckled laser excitation at the initial time; ( b ) simulated temperature distribution of the speckled laser excitation at the end time. The inset of ( b ) is Fourier transformation of the simulated temperatures at three different time. ( c ) N... More about this image found in ( a ) Simulated temperature distribution of a speckled laser excitation at ...

Fig. 3 ( a ) Simulated temperature distribution of a speckled laser excitation at the initial time; ( b ) simulated temperature distribution of the speckled laser excitation at the end time. The inset of ( b ) is Fourier transformation of the simulated temperatures at three different time. ( c ) N... More about this image found in ( a ) Simulated temperature distribution of a speckled laser excitation at ...

Fig. 1 ( a ) Schematic of EMD simulation. ( b ) An example of HCAC autocorrelation function (Reproduced with permission from Luo and Lloyd [ 23 ]. Copyright 2010 by ASME). ( c ) An example of modal analysis where the modal energy autocorrelation function's decay time gives relaxation time of the m... More about this image found in ( a ) Schematic of EMD simulation. ( b ) An example of HCAC autocorrelation...

Fig. 2 MD results of TC as a function of temperature for ( a ) c-Si and ( b ) a-Si: ( a ) solid pentagrams are from Glassbrenner and Slack's experiment [ 71 ], and all other hollow symbols and lines are MD simulation results [ 17 , 72 – 74 ] and ( b ) solid pentagrams are from Pompe and Hegenbarth... More about this image found in MD results of TC as a function of temperature for ( a ) c-Si and ( b ) a-Si...

Fig. 3 Thermal conductivity and structure of aligned crystalline polymers at different temperatures (Reproduced with permission from Zhang et al. [ 107 ]. Copyright 2014 by American Chemical Society). More about this image found in Thermal conductivity and structure of aligned crystalline polymers at diffe...

Fig. 4 ( a ) The spectral overlap across different interfaces, taking the Au–SAM–PE interfaces as an example; ( b )schematic illustrating the impact of anharmonicity on thermal transport across interfaces; and ( c ) frequency dependence of the energy-transmission coefficient across interfaces (Rep... More about this image found in ( a ) The spectral overlap across different interfaces, taking the Au–SAM–P...

Fig. 5 ( a ) Example of length dependence of the TC (Reproduced with permission from Sellan et al. [ 25 ]. Copyright 2010 by APS). ( b ) TC versus tube length L in log–log scale for (5,5) and (10,10) SWCNTs at 300 K and 800 K (Reproduced with permission from Zhang and Li [ 168 ]. Copyright 2005 ... More about this image found in ( a ) Example of length dependence of the TC (Reproduced with permission fr...

Fig. 6 ( a ) Schematic of MLP development for MD simulations; ( b ) standardized potential energies and atomic forces from MD simulations using NNP and ab initio MD (AIMD) calculations (Reproduced with permission from Li et al. [ 91 ]. Copyright 2020 by AIP Publishing). More about this image found in ( a ) Schematic of MLP development for MD simulations; ( b ) standardized p...

Fig. 7 Schematic of active learning combined with high-throughput MD to identify thermally conductive polymer blends (Reproduced with permission from Xu and Luo [ 221 ]. Copyright 2024 by Springer Nature). More about this image found in Schematic of active learning combined with high-throughput MD to identify t...

Fig. 1 ( a ) The structure of hexagonal BN, rhombohedral BN, cubic BN, wurtzite BN and ( b ) the specific structure of h-BN More about this image found in ( a ) The structure of hexagonal BN, rhombohedral BN, cubic BN, wurtzite BN...

Fig. 2 ( a ) Schematic diagram of sonication-assisted hydroxylation of h-BN and the typical AFM topographic image, ( b ) hydroxide-assisted ball-milling hydroxylation of h-BN, ( c ) the low-magnification TEM image and AFM topography image of OH-BNNSs, and ( d ) hydrolysis-assisted exfoliation and ... More about this image found in ( a ) Schematic diagram of sonication-assisted hydroxylation of h-BN and th...

Fig. 3 Schematic of the preparation process of OH-BNNSs ( a ) using aqueous shear exfoliation procedure, ( b )by sonication-assisted liquid-phase exfoliation, and ( c ) by a distinctive temperature pretreatment and glucose-assisted method More about this image found in Schematic of the preparation process of OH-BNNSs ( a ) using aqueous shear ...

Fig. 4 ( a ) Reaction methodology of OH-BNNSs involved with di-t-butyl peroxide and H 2 SO 4 /H 2 O 2, ( b ) the photographs of water, pristine-BNNSs and OH-BNNSs in water, ( c ) schematic representation of the exfoliation following the sequence deposition of hydroxides on h-BN, peripheral self-c... More about this image found in ( a ) Reaction methodology of OH-BNNSs involved with di-t-butyl peroxide an...

Fig. 5 ( a ) Schematic illustration of preparation processes of NH 2 -BNNSs and BNNSs/Si 3 N 4 hybrid powder and ( b )schematic of the preparation process of NH 2 -BNNSs via urea-assisted ball milling More about this image found in ( a ) Schematic illustration of preparation processes of NH 2 -BNNSs and BN...

Fig. 6 ( a ) Schematic drawing of the proposed mechanism for bonding of FTS molecule to h-BN nanoparticlesurface. Schematic illustration of ( b ) the modification process of M-BNNSs, ( c ) sugar-assisted mechanochemical exfoliation, and ( d ) photos of the sucrose-g-BNNSs dispersions in H 2 O, DMF... More about this image found in ( a ) Schematic drawing of the proposed mechanism for bonding of FTS molecu...

Fig. 7 Schematic illustration of the exfoliation and functionalization process of ( a ) PEI@BNNSs via Lewis acid–base interactions and ( b ) BNNSs based on ionic liquid crystal recycling process via π–π interactions More about this image found in Schematic illustration of the exfoliation and functionalization process of ...