Modern first‐principles calculations predict that the thermal conductivity of boron arsenide is
second only to that of diamond, the best thermal conductor, which may be of benefit for …

Cubic boron arsenide (BAs) is a promising compound semiconductor for thermal
management applications due to its high thermal conductivity, exceeding 1000 W m–1 K–1 …

Cubic boron arsenide (c-BAs) exhibits an ultrahigh thermal conductivity (κ) approaching
1300 Wm− 1 K− 1 at room temperature. However, c-BAs is believed to incorporate high …

BAs is a III–V semiconductor with ultra-high thermal conductivity, but many of its electronic
properties are unknown. This work applies predictive atomistic calculations to investigate the …

As the only semiconductor material exhibiting ultrahigh thermal conductivity under ambient
conditions, cubic boron arsenide (BAs) is currently attracting great interest. Thanks to the …

Predictions of ultrahigh thermal conductivity in boron arsenide using first-principles
calculations have motivated research to synthesize crystals and investigate their properties …

Semiconductors have been studied as the most promising thermoelectric materials for the
past decades due to their high Seebeck coefficient. Semimetals usually have a small …

It has been well established that (i) the thermopower of semiconductors can be enhanced
through a phenomenon known as the drag effect, and (ii) the drag enhancement involves …

Boron arsenide (BAs) has recently attracted significant attention since the confirmation of its
unusually high thermal conductivity (κ) above 1000 W m− 1 K− 1. However, determining how …

Recent measurements of an unusual high-thermal conductivity of around 1000 W m− 1 K− 1
at room temperature in cubic boron arsenide (BAs) confirm predictions from theory and …