Abstract: Method for placing playback content within the display area of a screen of a video shelving rail. wherein, with the help of a camera, a digital image of the screen and/or a product-presentation area extending along the screen is captured, and wherein an image-processing device is used to automatically detect a placement indicator and its position in the digital image, wherein the placement indicator indicates or delimits the space of a product to be presented along the screen, and wherein the image-processing device generates placement data based on the detected position of the placement indicator, wherein the placement data defines the space for the playback content to be played within the display area, and wherein the video shelving rail displays the playback content in accordance with the placement data within the display area of the screen.

Abstract: A front-end module for a vehicle includes a bumper cover having at least one recess for fastening the front-end module to a vehicle structure along a longitudinal direction (X-direction) of the vehicle, at least one fastening structure which is configured to fasten the front-end module to the vehicle structure in the longitudinal direction, and at least one cover which is attachable to the bumper cover from the outside in order to close the at least one recess after the fastening of the front-end module.

Abstract: An X-ray rotating anode for generating X-rays has a carrier body and at least one annular focal track coating extending along a focal track on the carrier body. The carrier body is made of Mo or a Mo-based alloy and the at least one annular focal track coating is made of W or a W-based alloy. The focal track coating has a first layer and a second layer lying directly above the first layer in a perpendicular direction to the focal track surface starting from the carrier body. The first layer has a grain structure that differs from the second layer.

Abstract: The invention relates to an optoelectronic component comprising a carrier, an optoelectronic semiconductor chip and a metal cover. The optoelectronic semiconductor chip has a top with a light-emitting surface. The optoelectronic semiconductor chip is disposed on a top of the carrier such that the light-emitting surface faces away from the top of the carrier. The cover is disposed above the top of the carrier and above the optoelectronic semiconductor chip. The cover has an opening, which is disposed above the light-emitting surface. A dam, which surrounds the light-emitting surface, is disposed on the top of the optoelectronic semiconductor chip.

Abstract: In an embodiment, a method includes providing an electronic semiconductor chip having a contact pad with a layer having gold, providing a carrier having a mating contact pad, arranging capsules on the mating contact pad, wherein each of the capsules comprises a solid shell, which surrounds a supercooled metallic liquid, and wherein the supercooled metallic liquid comprising tin, arranging the electronic semiconductor chip on the carrier such that the contact pad faces the mating contact pad and opening the capsules, wherein the supercooled metallic liquid wets the mating contact pad and the contact pad, and wherein the tin and the gold form an intermetallic compound.

Abstract: The invention relates to various aspects of a ?-LED or a ?-LED array for augmented reality or lighting applications, in particular in the automotive field. The ?-LED is characterized by particularly small dimensions in the range of a few ?m.

Abstract: The invention relates to an inventory management method which comprises the steps of: controlling shelf devices (AID) arranged on shelves of a fixture to cause the shelf devices to implement a localization process; controlling a sensor (CAM) to acquire sensor signals during the localization process; and localizing each of said shelf devices based on the acquired sensor signals. Controlling the shelf devices comprises sending a device command (D-Cd) to each of said shelf devices (AID), wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode.

Abstract: The invention relates to a method of controlling an imaging device having at least one controllable viewing parameter and arranged to capture images of an articles placement fixture, comprising the set-up steps of: successively capturing images (CAPTx) of the articles placement fixture with the imaging device, wherein said capturing comprises controlling the at least one controllable viewing parameter to be modified between two successive image captures; determining (Sfc) for each of the successively captured images a fixture coverage score; selecting (SLC) a reference image as the image from among the successively captured images having the best fixture coverage score; setting (SET) the at least one controllable viewing parameter to be the one used when capturing the reference image.

Abstract: The invention relates to a system for managing stock of a shelf of a salespoint, comprising: —a communication module adapted to receive a far field order via far field radio communication, and to send a near field order via near field radio communication to at least one device (10-40) located within a transmission range of said communication module, wherein said communication module is adapted to be fixed to a shelf; and —at least one device (10-40) adapted to receive the near field order and to perform an action in response to the near field order.

Abstract: The invention relates to an imaging device for a shelf support on a shelf edge and comprising a receiving section configured to receive electronic labels, the imaging device comprising a back side configured to be removably fitted in the receiving section, a front side opposite to the back side, an optical sensor configured to acquire an image of shelves facing the front side, an actuator configured to rotate the optical sensor around one or more axes of rotation, a memory configured to save the image, a processing unit configured to transmit the image to an image server.

Abstract: In an embodiment a radiation-emitting semiconductor component includes a carrier having a first main surface and at least one lateral surface extending transversely to the first main surface, at least one semiconductor chip arranged on the first main surface of the carrier and configured to emit radiation at a radiation emission face and a housing molded onto the carrier and the at least one semiconductor chip, wherein the at least one lateral surface of the carrier is uncovered by the housing, wherein the housing comprises a depression arranged on the radiation emission face of the at least one semiconductor chip, wherein the housing is laterally delimited by at least one housing wall, and wherein the at least one housing wall is laterally offset in a direction toward the depression with respect to an edge of the carrier delimiting the first main surface.

Abstract: The invention relates to an inventory management method which comprises the steps of: controlling shelf devices (AID) arranged on shelves of a fixture to cause the shelf devices to implement a localization process: controlling a sensor (CAM) to acquire sensor signals during the localization process: and localizing each of said shelf devices based on the acquired sensor signals. Controlling the shelf devices comprises sending a device command (D-Cd) to each of said shelf devices (AID), wherein the device command includes a localization process execution time and causes each of said shelf devices to have been switched from a sleep mode (SLPd) to a wake-up mode (WU-BLK) at the localization process execution time and to emit a localization signal before switching back to the sleep mode.

Abstract: Systems and methods are provided for multi-schema analysis of patient specific anatomical features from medical images. The system may receive medical images of a patient and metadata associated with the medical images indicative of a selected pathology, and automatically classify the medical images using a segmentation algorithm. The system may use an anatomical landmark detection algorithm leveraging Deep Reinforcement Learning (DRL) techniques to automatically locate one or more anatomical landmarks associated with the patient specific anatomical feature within the medical images. A 3D surface mesh model may be generated representing the patient specific anatomical features including the located one or more anatomical landmarks. The located one or more anatomical landmarks may be used to guide placement of a 3D model of a medical device that may be fused with the 3D surface mesh model to generate a patient specific 3D model of the medical device.

Abstract: The invention relates to a method of controlling an imaging device having at least one controllable viewing parameter and arranged to capture images of an articles placement fixture, comprising the set-up steps of: —successively capturing images (CAPTx) of the articles placement fixture with the imaging device, wherein said capturing comprises controlling the at least one controllable viewing parameter to be modified between two successive image captures; —determining (Sfc) for each of the successively captured images a fixture coverage score; —selecting (SLC) a reference image as the image from among the successively captured images having the best fixture coverage score; —setting (SET) the at least one controllable viewing parameter to be the one used when capturing the reference image.

Abstract: A front frame structure for a chassis of an electric vehicle includes at least two longitudinal members; a cross member connecting the two longitudinal members in the vehicle width direction; at least two support elements, which are assigned to a respective longitudinal member and are connected to the cross member and/or to the respective longitudinal member. A distance is formed between an inner side of the respective longitudinal member and the respective support element, such that a respective mounting section of an electric motor can be inserted between the support element and the respective longitudinal member and can be or is fastened to the support element and the longitudinal member by a screw connection, wherein an axis of rotation of the screw connection runs essentially in the vehicle width direction.