Materials with high thermal conductivities are crucial to effectively cooling high-power-density electronic and optoelectronic devices. Recently, zinc-blende boron arsenide (BAs) has been predicted to have a very high thermal conductivity of over 2000 W m⁻¹K⁻¹ at room temperature by first-principles calculations, rendering it a close competitor for diamond which holds the highest thermal conductivity among bulk materials. Experimental demonstration, however, has proved extremely challenging, especially in the preparation of large high quality single crystals. Although BAs crystals have been previously grown by chemical vapor transport (CVT), the growth process relies on spontaneous nucleation and results in small crystals with multiple grai...
The ultrahigh thermal conductivity of cubic boron arsenide (BAs) makes it a promising material for n...
Advanced materials with extreme thermal conductivity are critically important for various technologi...
Advanced materials with extreme thermal conductivity are critically important for various technologi...
With the rapid development of modern microelectronic devices, materials with high thermal conductivi...
Thermal management becomes a critical technological challenge in the modern microelectronics world, ...
With the rapid development of modern microelectronic devices, materials with high thermal conductivi...
© 2019 Elsevier Ltd Boron arsenide (BAs) has recently attracted significant attention since the conf...
Recent calculations predict a super-thermal-conductivity of ∼2000 Wm-1K-1, comparable to that of dia...
© 2019 Elsevier Ltd Boron arsenide (BAs) with a zinc blende structure has recently been discovered t...
© 2019 Elsevier Ltd Boron arsenide (BAs) with a zinc blende structure has recently been discovered t...
High-thermal conductivity materials are useful for thermal management applications and fundamental s...
International audienceCubic boron arsenide (BAs) is a promising compound semiconductor for thermal m...
Materials with high thermal conductivity are of great importance to the thermal management of modern...
Cubic boron arsenide (BAs) is a promising compound semiconductor for thermal management applications...
International audienceThe promise enabled by boron arsenide's (BAs) high thermal conductivity (κ) in...
The ultrahigh thermal conductivity of cubic boron arsenide (BAs) makes it a promising material for n...
Advanced materials with extreme thermal conductivity are critically important for various technologi...
Advanced materials with extreme thermal conductivity are critically important for various technologi...
With the rapid development of modern microelectronic devices, materials with high thermal conductivi...
Thermal management becomes a critical technological challenge in the modern microelectronics world, ...
With the rapid development of modern microelectronic devices, materials with high thermal conductivi...
© 2019 Elsevier Ltd Boron arsenide (BAs) has recently attracted significant attention since the conf...
Recent calculations predict a super-thermal-conductivity of ∼2000 Wm-1K-1, comparable to that of dia...
© 2019 Elsevier Ltd Boron arsenide (BAs) with a zinc blende structure has recently been discovered t...
© 2019 Elsevier Ltd Boron arsenide (BAs) with a zinc blende structure has recently been discovered t...
High-thermal conductivity materials are useful for thermal management applications and fundamental s...
International audienceCubic boron arsenide (BAs) is a promising compound semiconductor for thermal m...
Materials with high thermal conductivity are of great importance to the thermal management of modern...
Cubic boron arsenide (BAs) is a promising compound semiconductor for thermal management applications...
International audienceThe promise enabled by boron arsenide's (BAs) high thermal conductivity (κ) in...
The ultrahigh thermal conductivity of cubic boron arsenide (BAs) makes it a promising material for n...
Advanced materials with extreme thermal conductivity are critically important for various technologi...
Advanced materials with extreme thermal conductivity are critically important for various technologi...