Abstract: A heating device including a substrate, at least one heating layer on the substrate, and a power supply electrically connected to the at least one heating layer. The heating layer includes graphene nanomaterials. To form a layer of heating material, a liquid including graphene nanomaterials is applied to the substrate. The liquid is dried to form the at least one heating layer on the substrate. A first electrode and a second electrode are attached to the substrate. A power supply is electrically connected to the at least one heating layer on the substrate via the first electrode and the second electrode. The heating layer produces heat in the presence of power applied to the electrodes.

Abstract: A solar collection system includes a solar panel. The solar panel further includes a first major surface, a second major surface, a first end, and a second end. The first end is positioned near the second end to form a device where solar energy is collected on a portion of the first major surface and a portion of a second major surface of the solar panel. In one embodiment, the first end is connected to the second end to form an annular-shaped, or oval-shaped solar panel.

Abstract: A heating device including a substrate, at least one heating layer on the substrate, and a power supply electrically connected to the at least one heating layer. The heating layer includes graphene nanomaterials. To form a layer of heating material, a liquid including graphene nanomaterials is applied to the substrate. The liquid is dried to form the at least one heating layer on the substrate. A first electrode and a second electrode are attached to the substrate. A power supply is electrically connected to the at least one heating layer on the substrate via the first electrode and the second electrode. The heating layer produces heat in the presence of power applied to the electrodes.

Abstract: A fluid composition or nanofluid is described that includes a dielectric base fluid, a chemical dispersant, and nanoparticles dispersed in the dielectric fluid. The chemical dispersant is used to facilitate the nanoparticle dispersing process and also to increase the stability of the nanofluid thus produced. The nanofluid is compatible with electronics and has enhanced thermal conductivity for use in cooling electronics. Techniques are described that can be used to efficiently disperse different forms of nanoparticles into a base fluid and produce a stable nanofluid which is compatible with electronic circuitry and components.

Abstract: The present disclosure relates to a film or a composite that provides excellent heat removal capabilities and improved chemical stability and methods of forming the film and the composite. The film can be a layer of a nanomaterial. The composite can include a nanomaterial and a thermal interface material (TIM). The methods generally involve dispersing the nanomaterial in a carrier when forming the film or the composite.

Abstract: A fluid composition or nanofluid is described that includes a dielectric base fluid, a chemical dispersant, and nanoparticles dispersed in the dielectric fluid. The chemical dispersant is used to facilitate the nanoparticle dispersing process and also to increase the stability of the nanofluid thus produced. The nanofluid is compatible with electronics and has enhanced thermal conductivity for use in cooling electronics. Techniques are described that can be used to efficiently disperse different forms of nanoparticles into a base fluid and produce a stable nanofluid which is compatible with electronic circuitry and components.