In the quest for thinner, more efficient heat spreaders, a remarkable class of quantum materials offers a tantalizing solution: topological insulators […]
Imagine a Thermal Interface Material that can be a solid in place, yet liquefy and move to a new location
When heat fluxes push beyond the limits of conduction—even with diamond composites—the most effective solution is phase change: boiling a
As semiconductor features shrink below 10nm, the “interface” in Thermal Interface Material (TIM) takes on a quantum mechanical dimension. At
In aerospace, every gram matters. Traditional metal heat spreaders and ceramic-filled TIMs add significant mass. Enter graphene aerogels: porous, ultra-lightweight solids
For power modules operating above 200°C, solder-based TIMs creep and melt, and polymer-based materials degrade. The solution is a joint
Imagine a Thermal Interface Material (TIM) that can act as a thermal insulator for certain heat “frequencies” while remaining conductive for
As computing pushes into the quantum realm, thermal management faces its most extreme challenge: operating at temperatures near absolute zero while managing
As electronics become soft, stretchable, and integrated with biological systems, rigid, solid TIMs reach their limit. The future for these
In the quest for energy autonomy in electronics, every wasted energy form is a potential resource. What if the mechanical
Beyond electrons and phonons, a third carrier—the spin of an electron—offers a revolutionary path to control heat. Emerging research explores spintronic caloric effects within
Evolution has optimized biological systems for efficient mass and heat transfer under constraints of minimal material and energy. By mimicking
