Abstract:
A switching device includes first and second RF terminals disposed over a substrate, one or more strips of phase change material connected between the first and second RF terminals, a region of thermally insulating material that separates the one or more strips of phase change material from the substrate, and a heater structure comprising one or more heating elements that are configured to control a conductive connection between the first and second RF terminals by applying heat to the one or more strips of phase change material. Each of the one or more strips of phase change material includes a first outer face and a second outer face opposite from the first outer face. For each of the one or more strips of phase change material, at least portions of both of the first and second outer faces are disposed against one of the heating elements.
Abstract:
A method for manufacturing a device includes: providing a semiconductor substrate having an RF-device; providing a BEOL-layer stack on the first main surface of the semiconductor substrate; attaching a carrier structure to a first main surface of the BEOL-layer stack; removing a lateral portion of the semiconductor substrate which laterally adjoins the device region to expose a lateral portion of the second main surface of the BEOL-layer stack; and opening a contacting region of the BEOL-layer stack at the lateral portion of second main surface of the BEOL-layer stack.
Abstract:
An embodiment of the invention relates to a Seebeck temperature difference sensor that may be formed in a trench on a semiconductor device. A portion of the sensor may be substantially surrounded by an electrically conductive shield. A plurality of junctions may be included to provide a higher Seebeck sensor voltage. The shield may be electrically coupled to a local potential, or left electrically floating. A portion of the shield may be formed as a doped well in the semiconductor substrate on which the semiconductor device is formed, or as a metal layer substantially covering the sensor. The shield may be formed as a first oxide layer on a sensor trench wall with a conductive shield formed on the first oxide layer, and a second oxide layer formed on the conductive shield. An absolute temperature sensor may be coupled in series with the Seebeck temperature difference sensor.
Abstract:
An integrated circuit having field effect transistors and manufacturing method. One embodiment provides an integrated circuit including a first FET and a second FET. At least one of source, drain, gate of the first FET is electrically connected to the corresponding one of source, drain, gate of the second FET. At least one further of source, drain, gate of the first FET and the corresponding one further of source, drain, gate of the second FET are connected to a circuit element, respectively. A dopant concentration of a body along a channel of each of the first and second FETs has a peak at a peak location within the channel.
Abstract:
A power semiconductor device includes a semiconductor body including a first surface, an edge delimiting the semiconductor body in a horizontal direction substantially parallel to the first surface, an active area including at least one of several transistor structures connected in parallel and several diode structures connected in parallel, and a peripheral area arranged between the active area and the edge. The power semiconductor further device includes a plurality of word lines, a plurality of bit lines separated from the word lines, and a plurality of temperature sensors arranged on or at the first surface, wherein each of the temperature sensors is connected with one of the bit lines and one of the word lines or each of the temperature sensors is formed by a respective portion of one of the bit lines.
Abstract:
A vertical transistor component includes a semiconductor body with first and second surfaces, a drift region, and a source region and body region arranged between the drift region and the first surface. The body region is also arranged between the source region and the drift region. The vertical transistor component further includes a gate electrode arranged adjacent to the body zone, a gate dielectric arranged between the gate electrode and the body region, and a drain region arranged between the drift region and the second surface. A source electrode electrically contacts the source region, is electrically insulated from the gate electrode and arranged on the first surface. A drain electrode electrically contacts the drain region and is arranged on the second surface. A gate contact electrode is electrically insulated from the semiconductor body, extends in the semiconductor body to the second surface, and is electrically connected with the gate electrode.
Abstract:
A vertical transistor component includes a semiconductor body with first and second surfaces, a drift region, and a source region and body region arranged between the drift region and the first surface. The body region is also arranged between the source region and the drift region. The vertical transistor component further includes a gate electrode arranged adjacent to the body zone, a gate dielectric arranged between the gate electrode and the body region, and a drain region arranged between the drift region and the second surface. A source electrode electrically contacts the source region, is electrically insulated from the gate electrode and arranged on the first surface. A drain electrode electrically contacts the drain region and is arranged on the second surface. A gate contact electrode is electrically insulated from the semiconductor body, extends in the semiconductor body to the second surface, and is electrically connected with the gate electrode.