Thermal Management Materials and Nanofluid Heat Transfer
This community develops materials and fluid systems to move heat away from electronic components, solar collectors, and industrial machinery.
The work centers on hexagonal boron nitride nanosheets and nanotubes, which are integrated into epoxy composites, polymer films, and aerogels to create solid thermal interface materials. A parallel strand investigates hybrid nanofluids, where nanoparticles are suspended in water or oil to enhance convective heat transfer in solar collectors, pool boiling systems, and microchannel flows. Researchers frequently employ molecular dynamics simulations and density functional theory to model phonon transport and fluid dynamics at the nanoscale. Applications include thermal management for 3D integrated microelectronics, high-power electronics, and renewable energy systems, with a strong emphasis on balancing thermal conductivity with electrical insulation and mechanical robustness.
The community is most heavily concentrated in boron research, accounting for 9.3% of all tracked boron papers, and nitrogen research, representing 2.4% of that element's output. Boron also contributes the highest absolute number of papers to this group, with 13,245 entries.
The community comprises 28,515 papers, published primarily in Diamond and Related Materials, Applied Physics Letters, and Journal of Thermal Analysis and Calorimetry.
Recent work focuses on constructing interlayer phonon bridges for electronic devices, optimizing non-Newtonian hybrid nanofluids for solar HVAC systems using neural network predictions, and developing bio-based polyimide composites for green thermal management.