Westphal, Mussgnug & Partner Patentanwälte mbB

A halide perovskite-based complementary semiconductor device according to an embodiment of the present invention includes a substrate, a two-dimensional material layer formed on an upper surface side of the substrate and including a hole injection layer and an electron injection layer, a halide perovskite layer formed on the two-dimensional material layer, and an electrode layer formed on the halide perovskite layer and including a drain electrode, an output electrode, and a source electrode.

A halide perovskite thin film semiconductor device according to an embodiment of the present invention includes: a substrate; a halide perovskite layer formed on an upper surface side of the substrate; a two-dimensional material layer formed on the halide perovskite layer; an electrode unit disposed on the halide perovskite layer and including a drain electrode and a source electrode; and a polymer layer formed on the two-dimensional material layer and the electrode unit, wherein the two-dimensional material layer is characterized by being manufactured by being stacked on the halide perovskite layer by a dry transfer method.

Methods and system are herein provided for a camera system. In one example, a camera system comprises one or more cameras, one or more light sources, and a computing device comprising one or more processors and a memory, wherein the one or more light sources are configured to be activated for defined time periods at regular intervals to illuminate an environment within a field of view of the one or more cameras, the one or more cameras are configured to capture one or more images during each defined time period when the one or more light sources are activated, and the computing device is configured to receive one or more images captured during a defined time period by means of the one or more cameras, evaluate the one or more images, and if, based on evaluating the one or more images, it is determined that at least one of the one or more images is overexposed, execute a time shift application, wherein executing the time shift application comprises instructing the one or more light sources to delay a subsequent activation by a defined time interval.

Die vorliegende Erfindung betrifft einen elektromagnetischen Stopper (1; 100), insbesondere zum Vereinzeln, Positionieren und/oder Halten von Gegenständen auf einer Transportstrecke, aufweisend ein Gehäuse (10),ein erster Hebelarm (20) und ein dritter Hebelarm (40; 140), wobei der erste Hebelarm (20) über ein erstes Gelenk (25) und der dritte Hebelarm (40; 140) über ein drittes Gelenk (45) schwenkbar an dem Gehäuse (10) angeordnet sind, ein zweiter Hebelarm (30), wobei der zweite Hebelarm (30) über ein erstes Verbindungsgelenk (35) schwenkbar an dem ersten Hebelarm (20) und über ein drittes Verbindungsgelenk (37) schwenkbar an dem dritten Hebelarm (40) angeordnet ist, ein Aktor (60), der mit dem ersten Hebelarm (20) oder dem zweiten Hebelarm (30) mechanisch verbunden ist, und zwischen einer Stoppstellung und einer Offenstellung bewegbar ist und ein Anschlagelement (70), das in Stoppstellung zumindest teilweise aus dem Gehäuse (10) ragt, wobei das Anschlagelement (70) an dem dritten Hebelarm (40) angeordnet ist, wobei das dritte Gelenk (45) eine dritte Gelenkachse (46) und das dritte Verbindungsgelenk (37) eine dritte Verbindungsgelenkachse (38) aufweist und wobei die dritte Gelenkachse (46) und die dritte Verbindungsgelenkachse (38) beabstandet zueinander angeordnet sind.

A system and method are provided herein for dynamic haptic feedback in vehicles. Speakers are integrated into vehicle seats to provide tactile feedback in synchronization with internal sound and external sound synthesis perceptible to an occupant to enhance awareness of vehicle dynamics.

An audio system (100, 200) comprises an ambience analysis unit (102, 202) configured to identify and/or analyze early reflections and reverberation present in a first plurality of audio input signals (IN) or in processed versions of the first plurality of audio input signals (INx), a weighting unit (106, 206) configured to weigh the early reflections identified in the first plurality of audio input signals (IN) or in the processed versions of the first plurality of audio input signals (INx), and the reverberation identified in the first plurality of audio input signals (IN) or in the processed versions of the first plurality of audio input signals (INx), and a merging unit (108, 208) configured to assign the weighted early reflections identified in the first plurality of audio input signals (IN) or in the processed versions of the first plurality of audio input signals (INx) to a first subset of a second plurality of audio output signals (OUT), and to assign the weighted reverberation identified in the first plurality of audio input signals (IN) or in the processed versions of the first plurality of audio input signals (INx) to a second subset of the second plurality of audio output signals (OUT).

A firearm-mounted clip-on device includes a weapon mount adaptor disposed on the device to attach the device to a firearm in front of a day scope mounted on the firearm, a display that is viewable from an eyepiece of the day scope that shows objects in a field-of-view of the firearm-mounted clip-on device and one or more overlay layers superimposed thereon and containing one or more overlay components, and a control that adjusts the one or more overlay layers without moving or resizing objects in a field-of-view of the day scope to cause the overlay components to appear in the eyepiece in the field-of-view of the day scope. The firearm-mounted clip-on device may also include an infrared sensor that provides a thermal image to the display. At least some of the overlay components may correspond to operation of the firearm-mounted clip-on device. The overlay components may include icons and/or text.

A method comprises receiving, by a wireless device, one or more configuration parameters indicating that one or more first quality of service (QoS) flows, among a plurality of QoS flows, are enabled for rate control. Each QoS flow, of the one or more first QoS flows, is identified by a respective QoS flow identifier (QFI). The method further comprises receiving a rate control medium access control (MAC) control element (CE) for the one or more first QoS flows that are enabled for the rate control. The rate control MAC CE comprises a bitmap, and the bitmap comprises a plurality of bit fields. Each bit field, of the plurality of bit fields, is mapped to a QFI of a respective one of the one or more first QoS flows, and the mapping is based on an ascending order of values determined based on QFIs of the one or more first QoS flows.

A method comprises determining a frequency response correction curve, wherein the frequency response correction curve corresponds to a difference between a first frequency response and a second frequency response, and applying the frequency response correction curve to a microphone output signal of a microphone element, thereby correcting a frequency response of the microphone element to a desired frequency response.

A method for increasing overall pin alignment accuracy for a power semiconductor module having a plurality of pins includes attaching the plurality of pins and one or more power semiconductor dies to a first side of a substrate to form a power semiconductor subassembly; aligning a distal end of each of the pins with an alignment feature of an electrically insulative housing using a jig; and after the aligning, attaching the housing to the power semiconductor subassembly. The housing is attached to the subassembly such that the housing and the substrate together define an interior space in which the pins and the one or more power semiconductor dies are disposed. The pins jut out beyond the housing.