Viering, Jentschura & Partner mbB Patent- und Rechtsanwälte

An electromagnetic shielding module (1) includes a cover (11) and a frame (12). The cover (11) has a first side wall (111) and a first snap structure (112). The first snap structure (112) is arranged on the first side wall (111), and the first snap structure (112) has a first slot (1121) and a first elastic arm (1122). The frame (12) has a second side wall (121) and a second snap structure (122). The second snap structure (122) is arranged on the second side wall (121). When the cover (11) and the frame (12) are combined, the first elastic arm (1122) and the second elastic arm (1222) overlap and engage with each other. A photoelectric device (Z) is further provided.

An artificial shuttlecock (1) comprises a base portion (10), a plurality of stems (20), a plurality of feathers (30), two first braided structures (41,42) and a second braided structure (43). The stems (20) are spaced at intervals on the base portion (10). Each of the stems (20) comprises a base segment (21), a connecting segment (22), and a feather segment (23). The connecting segment (22) is located between the base segment (21) and the feather segment (23). The base segment (21) being inserted into the base portion (10). Each of feathers (30) is connected to the feather segment (23) of the respective stem (20). The two first braided structures (41,42) are adjacently disposed on the connecting segments (22) of the stems (20). The second braided structure (43) is disposed on the connecting segments (22) of the stems (20) and spaced apart from the two first braided structures (41,42).

A method for establishing a robot community, a robot community system and an operating method. For establishing the robot community, each of intelligent robots (101) is assigned with a specific attribute, and accordingly a training data is prepared for training the intelligent robot (101) through a machine-learning algorithm. The robot communication system then deploys multiple intelligent robots (101) into a social media and generates community contents associated with each of the intelligent robots (101) according to the attribute and basic data of each of the intelligent robots (101) by a generative intelligent model. Therefore, the robot community system allows users to interact with the intelligent robots (101) and establish social relationships between the users and the intelligent robots (101) in the social media.

An apparatus may include a digital power amplifier (DPA) comprising a plurality of amplifier cells configured to provide an output signal based on amplitude control information, wherein each amplifier cell is switchable to contribute to the output signal; and a controller configured to enable a subset of the plurality of amplifier cells according to an activation sequence, wherein the subset includes enabled amplifier cells arranged non-adjacently, with at least one inactive amplifier cell of the plurality of amplifier cells positioned between adjacent enabled amplifier cells.

A paint booth that allows air to flow evenly comprises: a painting chamber having a ceiling and a plurality of side walls; an air supply port for supplying external air to the painting chamber; and an air exhaust port for discharging internal air of the painting chamber. The plurality of side walls include a first side wall and a second side wall located opposite the first side wall, the air supply port is arranged relatively adjacent to the first side wall on the ceiling, and the air exhaust port is arranged at the lower part of the second side wall.

Embodiments herein relate to a battery pack for a portable computing device such as a laptop or other battery-powered device. The battery pack includes one or more key structures that are coded to a chemistry and/or other characteristics of the battery cells within the pack. The key structures can be formed on an exterior surface of the battery package using a rigid material such as plastic. In one approach, the exterior surface comprises a soft-sided material such as aluminum-plastic or Mylar^®. The key structures can include protrusions and recesses which extend along a length of the battery package. The key structures match corresponding inverse key structures in a battery container so that only a compatible battery can be installed in the container. The key structures can be added to a cylindrical battery, or to a rectangular frame of a pouch or prismatic cell-based battery pack.

A transportation apparatus according to the present technology includes a plurality of suction blocks (1), plate portions (2), and a plurality of holes (4). Each of the plurality of suction blocks (1) is configured to be capable of pulling a transportation target by suction through a transportation belt (8). The plurality of suction blocks (1) is coupled to be arranged in a line in a transportation direction of the transportation target. The plate portions (2) are respectively provided on suction blocks (1) of the plurality of suction blocks (1). In a coupling portion in which the suction blocks (1) adjacent to each other are coupled to each other, the plate portion (2) includes a mountain-shaped ridge portion (3) that protrudes in the transportation direction. Each plate portion (2) supports the transportation belt (8) slidably on a corresponding one of the plurality of suction blocks (1). The plurality of holes (4) is provided to each plate portion (2). The hole (4) has one side formed substantially parallel to the ridge portion (3).

An abdominal image-based analysis system (10) and a method thereof are provided. The analysis system (10) includes a computing device (12) and a display device (16). In the analysis system (10), a regression deep learning model (14) is implemented into the computing device (12). The computing device (12) receives at least one abdominal image (18) and inputs the abdominal image (18) into the regression deep learning model (14). The regression deep learning model (14) extracts a physiological characteristic value in the abdominal image (18) and executes an analysis and regression operation to generate a predicted physiological index (20). The display device (16) is electrically connected to the computing device (12) to display the abdominal image (18) and the corresponding predicted physiological index (20). Therefore, the abdominal image (18) is combined with artificial intelligence (AI) technology to generate an objective predictive physiological index (20) to assist doctors in analysis.

A slide rail assembly (20) includes a first rail (22), a second rail (24), a first auxiliary member (26) and a second auxiliary member (28). The first auxiliary member (26) is movably mounted to one of the first rail (22) and the second rail (24). The second auxiliary member (28) is mounted to the other one of the first rail (22) and the second rail (24) . During a process of the second rail (24) being moved relative to the first rail (22) from a predetermined position along a predetermined direction with the first auxiliary member (26) being located at a first working position, a guiding structure of the first auxiliary member (26) and a guiding feature of the second auxiliary member (28) are configured to contact each other in order to reduce speed of the second rail (24) relative to the first rail (22) along the predetermined direction.

A method of device deployment includes steps as follows. A beacon signal with a switching mode message is repeatedly sent by a Bluetooth low energy (BLE) transmitter device, and the beacon signal with the switching mode message is used to trigger receiving devices to transmit data based on a generic attribute profile (GATT); after a receiving device of the receiving devices is triggered by the beacon signal with the switching mode message, the receiving device based on the GATT receives device deployment data from a GATT transmitter device specified by the beacon signal with the switching mode message, so that the receiving device can use the device deployment data to perform a subsequent deployment after the receiving device is booted initially.