Abstract:
The invention relates to an electrical circuit with at least one nanostructure and a carbon conductor track, said carbon conductor track being embodied by a layer essentially made from carbon, whereby the nanostructure and the carbon conductor track are in direct contact.
Abstract:
The invention relates to a method for depositing a carbon material (17) in or on a substrate (14). Said method comprises the following steps: the inside (10') of a processing chamber (10) is heated to a pre-determined temperature; the substrate (14) is introduced into the processing chamber (10); the air in the processing chamber (10) is evacuated until a pre-determined pressure or a lower pressure is reached; a gas (12) containing at least carbon is introduced until a second pre-determined pressure is reached, that is higher than the first pre-determined pressure; and the carbon material (17) is deposited on a surface or in a recess (15), from the gas (12) containing carbon. The invention also relates to a semiconductor contact device.
Abstract:
A nanoelement field effect transistor includes a nanotube disposed on the substrate. A first source/drain region is coupled to a first end portion of the nanoelement and a second source/drain region is coupled to a second end portion of the nanoelement. A recess in a surface region of the substrate is arranged in such a manner that a region of the nanoelement arranged between the first and second end portions is taken out over the entire periphery of the nanoelement. A gate-insulating structure covers the periphery of the nanoelement and a gate structure covers the periphery of the gate-insulating structure.
Abstract:
An integrated electronic component having a substrate, a metal multilayer system, which is arranged at least on regions of the substrate, and a nonconductive layer, which is arranged on the metal multilayer system and has at least one contact hole, in which at least one carbon nanotube is grown on the metal multilayer system at the bottom of the contact hole. The metal multilayer system includes a high-melting metal layer, a metal separating layer, a catalyst layer, and a final metal separating layer. The high-melting metal layer is composed of at least one of tantalum, molybdenum, and tungsten. The metal separating layer is composed of aluminum, gold, or silver. The catalyst layer is composed of at least one of iron, cobalt, nickel, yttrium, titanium, platinum, and palladium, and a combination thereof. The final metal separating layer, which is arranged above the catalyst layer, is composed of aluminum.
Abstract:
A semiconductor power switch and method is disclosed. In one Embodiment, the semiconductor power switch has a source contact, a drain contact, a semiconductor structure which is provided between the source contact and the drain contact, and a gate which can be used to control a current flow through the semiconductor structure between the source contact and the drain contact. The semiconductor structure has a plurality of nanowires which are connected in parallel and are arranged in such a manner that each nanowire forms an electrical connection between the source contact and the drain contact.
Abstract:
A circuit is disclosed. The circuit includes at least one nanostructure and a carbon interconnect formed by a substantially carbon layer, wherein the nanostructure and the carbon interconnect are directly coupled to one another.