Mitscherlich PartmbB

Die vorliegende Erfindung betrifft einen Gerätesteckdose (1) zur Verbindung mit einem Gerätestecker (100), aufweisend eine Vielzahl von elektrischen Anschlusskontaktelementen (2), und ein Isoliergehäuse (6), welches die elektrischen Anschlusskontaktelemente (2) wenigstens teilweise aufnimmt und trägt, wobei die elektrischen Anschlusskontaktelemente (2) jeweils einen Steckabschnitt (3) aufweisen, die alle parallel zu einer ersten Achse (X) ausgerichtet sind, wobei die elektrischen Anschlusskontaktelemente (2) jeweils einen mit dem Steckabschnitt (3) integral einstückig ausgebildeten Anschlussabschnitt (4) aufweisen, an denen jeweils ein elektrischer Leiter (L) eines Anschlusskabels (C) in einer Anschlussorientierung (A) parallel zu einer jeweiligen zweiten Achse (Y) anschließbar ist, um elektrisch mit dem zugeordneten Steckabschnitt (3) verbunden zu sein, wobei die erste Achse (X) mit jeder der zweiten Achsen (Y) einen Winkel α mit 0° < α ≤ 90° einschließt. Ferner betrifft die vorliegende Erfindung ein Netzkabel (10) mit der erfindungsgemäßen Gerätesteckdose (1), und einem Anschlusskabel (C).

The disclosure relates to an integrated photonic chip (10) for optical coupling. The photonic chip comprises a substrate (11), a spot size converter (12) formed on a frontside surface of the substrate (11), a mirror (13) formed on the frontside surface of the substrate, and a meta-lens (14) formed in or on a backside surface of the substrate (11). The spot size converter (12) enlarges a diameter of a light beam in the photonic chip (10) from a smaller mode size to a larger mode size. The mirror receives the larger mode size light beam (15a) from the spot size converter (12), and reflects the light beam at an angle into the substrate. The meta-lens collimates the light beam (15b) reflected by the mirror and expanded when passing through the substrate, and outputs the collimated light beam (15c) towards the optical device.

Bei einem Schiebefalttor (100) mit einer Anordnung von mehreren flügelartigen Falttorsegmenten (10) sind die Falttorsegmente (10) um vertikale Schwenkachsen schwenkbar miteinander verbunden, wobei zum Öffnen und Schließen des Schiebefalttors (100) die Anordnung der Falttorsegmente (10) mit Hilfe von Führungselementen (17) entlang einer Führungsbahn (I) auf ein seitliches Ende zubewegt oder von diesem weggeschoben wird. Zumindest einige Falttorsegmente (10) weisen ein Auslenkungselement (18) auf, welches entlang einer Auslenkungsbahn (II) geführt gelagert ist, um während des Öffnens des Schiebefalttors (100) ein Falten der Falttorsegmente (10) zu ermöglichen, wobei die Auslenkungsbahn (II) bogenförmig von der Führungsbahn (I) abzweigt und eine Weiche (30) vorgesehen ist, welche dazu ausgebildet ist, beim Öffnen des Schiebefalttors (100) die sich auf das seitliche Ende zu bewegenden Auslenkungselemente (18) in die Auslenkungsbahn (II) abzuzweigen.

Method and lighting system for individually controlling illumination of a plurality of sub-areas commonly constituting an overall illumination area of a controllable light source. An environment sensor senses an environment at least corresponding to the overall illumination area and generates a representation thereof. A processing unit analyses the representation for determining objects and/or regions in the representation. The processing unit further sets a setting value for the at least one lighting parameter for each of the plurality of sub-areas depending on the determined object and/or regions, and a controlling unit controls light emission of the controllable light source according to the determined values for each of the plurality of sub-areas.

A propulsion system of a boat capable of finely adjusting propulsive force of the boat is provided.A propulsion system 1 of a boat includes: a plurality of propulsion machines 3, which are provided on a hull 2; and a controller 4, which controls thrust and thrust directions of the plurality of propulsion machines 3. The controller 4 receives an instruction value of the propulsive force to be applied to the hull 2, and controls the thrust for every propulsion machine 3. The controller 4 steers the plurality of propulsion machines 3 in a direction that intersects a front-rear direction of the hull 2 in a yaw direction, based on the instruction value. As the instruction value increases, the controller 4 causes the steering angles θB of the plurality of propulsion machines 3 to become gradually parallel to the front-rear direction of the hull 2.

This disclosure relates to network communication, particularly, with flows comprising encrypted packets. The disclosure provides a source node for sending packets to a target node, and a middle node between the source and target node. The source and the middle node each determine a temporary key based on a master symmetric key, which is available at the source and the middle node. Further, they each determine a pseudo-random sequence based on the temporary key. The source node sends a sequence of packets towards the target node, each packet comprising one element of the pseudo-random sequence as identifier, and the sequence of packets comprising the elements of the pseudo-random sequence in order. The middle node receives a plurality of packets, and identifies the sequence of packets sent by the source node in the plurality of packets by comparing identifiers of the packets with elements of the pseudo-random sequence.

In some examples, an integrated circuit comprises a logic region comprising multiple transistors each having a channel thickness and a channel width, and a memory region comprising multiple transistors each having a channel thickness and a channel width, wherein a channel thickness of each transistor in the logic region is smaller than a channel thickness of each transistor in the memory region, wherein a gate length of each transistor in the memory region is longer than the gate length of each transistor in the logic region, wherein each of the multiple transistors in the logic region comprises a first number of nanosheets, wherein each of the multiple transistors in the memory region comprises a second number of nanosheets, wherein the first number of nanosheets and the second number of nanosheets are the same.

The invention concerns a computer-implemented method and a system for personalization of an assistance system that assists a user in operating a vehicle, the method comprises outputting, by a processor, a control signal for executing a support action by the assistance system. At least one sensor acquires information on a user reaction of the user in response to the executed support action. The processor determines a correction value for at least one parameter of the assistance system based on the acquired information on the user reaction, and generates at least one personalized parameter of the assistance system by adapting the at least one parameter with the determined correction value. The method further comprises determining, by the processor, the correction value based on at least one of the information on the user reaction and a predicted risk related to a situation, in which the assistance system executed the support action.

An imaging system (100) for medical imaging is provided. The imaging system comprises at least one training device (101), and at least one imaging device (102) operably coupled to the at least one training device (101), wherein the at least one imaging device (102) being configured to be attached to the skin of a person at a predefined location. In this regard, the at least one imaging device (102), in combination with the at least one training device (101), is configured to generate a first set of images corresponding to the predefined location, whereby the at least one training device (101) is configured to generate training data corresponding to the predefined location based on the first set of images. Furthermore, the at least one imaging device (102) is further configured to exclusively generate a second set of images corresponding to the predefined location based on the training data.

The present invention provides a fixed output driver. The fixed output driver comprises: a power supply circuit configured to output a constant output characteristic based on a predefined value; an NFC communication module configured to receive one or more control parameters from an external NFC-enabled device; and a control circuit configured to adjust the output characteristic of the driver within a predefined range relative to the predefined value based on the received control parameters, without modifying the predefined value.