Abstract: Apparatus for treating containers includes a handling device for the containers wherein the handling devices has a movable carrier with which the containers can be moved on a transport path, and wherein the handling devices is assigned at least one handling station, wherein the transport speed of the handling device can be controlled in such a way that the transport speed of the handling device can be synchronised with the transport speed of the transport device and/or a further transport device during transfer and/or discharge of the containers and the transport speed of the handling device can be reduced after the transfer of the containers.

Abstract: A method for growing a SiC-containing film on a Si substrate is disclosed. The SiC-containing film can be formed on a Si substrate by, for example, plasma sputtering, chemical vapor deposition, or atomic layer deposition. The thus-grown SiC-containing film provides an alternative to expensive SiC wafers for growing semiconductor crystals.

Abstract: A method for growing a SiC-containing film on a Si substrate is disclosed. The SiC-containing film can be formed on a Si substrate by, for example, plasma sputtering, chemical vapor deposition, or atomic layer deposition. The thus-grown SiC-containing film provides an alternative to expensive SiC wafers for growing semiconductor crystals.

Abstract: A substrate arrangement for high power semiconductor devices includes a SiC wafer having a Si layer deposited on a surface of the SiC wafer. An SOI structure having a first layer of Si, an intermediate layer of SiO2 and a third layer of Si, has its third layer of Si bonded to the Si deposited on the SiC wafer, forming a unitary structure. The first layer of Si and the intermediate layer of SiO2 of the SOI are removed, leaving a pure third layer of Si on which various semiconductor devices may be fabricated. The third layer of Si and deposited Si layer may be removed over a portion of the substrate arrangement such that one or more semiconductor devices may be fabricated on the SiC wafer while other semiconductor devices may be accommodated on the pure third layer of Si.

Abstract: A wide bandgap semiconductor material comprised of Silicon carbide containing a predetermined portion of germanium.

Abstract: A HEMT type device which has pillars with vertical walls perpendicular to a substrate. The pillars are of an insulating semiconductor material such as GaN. Disposed on the side surfaces of the pillars is a barrier layer of a semiconductor material such as AlGaN having a bandgap greater than that of the insulating material of the pillars. Electron flow is confined to a narrow channel at the interface of the two materials. Suitable source, drain and gate contacts are included for HEMT operation.