Abstract: Embodiments are provided for communicating notifications and other textual data associated with applications installed on an electronic device. According to certain aspects, a user can interface with an input device to send (218) a wake up trigger to the electronic device. The electronic device retrieves (222) application notifications and converts (288) the application notifications to audio data. The electronic device also sends (230) the audio data to an audio output device for annunciation (232). The user may also use the input device to send (242) a request to the electronic device to activate the display screen. The electronic device identifies (248) an application corresponding to an annunciated notification, and activates (254) the display screen and initiates the application.

Abstract: Provided is a display panel, including a base substrate provided with a first display region and a second display region and a plurality of pixels and a packaging layer that are sequentially arranged on the base substrate. The packaging layer includes a first organic layer, and the second display region has a relatively large transmittance. The second display region includes a first sub-display region and a second sub-display region that is proximal to a border of the base substrate relative to the first sub-display region. A difference between a maximum thickness and a minimum thickness of a first portion, disposed in the second display region, of the first organic layer is less than a difference between a maximum thickness and a minimum thickness of a second portion disposed in the second sub-display region.

Abstract: A display panel, a manufacturing method thereof and a display apparatus are provided. The display panel is divided into a display region and at least one light transmission region at least partially surrounded by the display region, including a base substrate; a driving circuit layer; an anode layer; a first insulating layer over the anode layer and including a first insulating sub-layer in the display region and a second insulating sub-layer in the at least one light transmission region; a functional film layer in the at least one light transmission region, the functional film layer has a first thickness so that a height difference between a height of a surface of the first insulating sub-layer and a height of a surface of the second insulating sub-layer is less than a first threshold; and an encapsulation leveling layer arranged on surfaces of the first and second insulating sub-layer.

Abstract: An automated testing system for power supply units includes a frame, automated test equipment supported by the frame, a test jig supported by the frame and coupled with the automated test equipment, and a robotic arm coupled to the frame. The robotic arm is configured to move a power supply unit onto the test jig to interface with the automated test equipment. The automated test equipment is configured to perform one or more tests on the power supply unit when the power supply unit is interfaced with the automated test equipment, and the robotic arm is configured to move the power supply unit off of the test jig after the one or more tests are completed. Methods of performing automated testing for power supply units are also disclosed.

Abstract: The present disclosure describes various embodiments of methods and systems of training a pruned neural network. One such method comprises defining a plurality of tuning blocks within a neural network, wherein a tuning block is a sequence of consecutive convolutional neural network layers of the neural network; pruning at least one of the plurality of tuning blocks to form at least one pruned tuning block, and pre-training the at least one pruned tuning block to form at least one pre-trained tuning block. The method further comprises assembling the at least one pre-trained tuning block with other ones of the plurality of tuning blocks of the neural network to form a pruned neural network; and training the pruned neural network, wherein the at least one pre-trained tuning block is initialized with weights resulting from the pre-training of the at least one pruned tuning block. Other methods and systems are also provided.

Abstract: An automated testing system for power supply units includes a frame, automated test equipment supported by the frame, a test jig supported by the frame and coupled with the automated test equipment, and a robotic arm coupled to the frame. The robotic arm is configured to move a power supply unit onto the test jig to interface with the automated test equipment. The automated test equipment is configured to perform one or more tests on the power supply unit when the power supply unit is interfaced with the automated test equipment, and the robotic arm is configured to move the power supply unit off of the test jig after the one or more tests are completed. Methods of performing automated testing for power supply units are also disclosed.

Abstract: An automated testing system for power supply units includes a frame, automated test equipment supported by the frame, a test jig supported by the frame and coupled with the automated test equipment, and a robotic arm coupled to the frame. The robotic arm is configured to move a power supply unit onto the test jig to interface with the automated test equipment. The automated test equipment is configured to perform one or more tests on the power supply unit when the power supply unit is interfaced with the automated test equipment, and the robotic arm is configured to move the power supply unit off of the test jig after the one or more tests are completed. Methods of performing automated testing for power supply units are also disclosed.

Abstract: A brush assembly for a brush motor includes a support member, brush holders, at least four brushes respectively mounted to the brush holders, and first and second motor terminals for connecting with an external power supply. A first filter circuit is connected between the first motor terminal and corresponding first brushes. A second filter circuit is connected between the second motor terminal and corresponding second brushes. The first and second motor terminals and the first and second filter circuits are mounted in a region defined by two corresponding adjacent brushes forming an angle greater than 60 degrees but less than 180 degrees.

Abstract: A fuse component configured to provide overcurrent protection for an electric motor comprises a spiral fuse portion and a magnetic core. The spiral fuse portion encloses at least a part of the magnetic core, so that the fuse component is also configured to function as a choke of the electric motor.

Abstract: A fan and a motor thereof are provided. The motor includes a motor drive device. The motor drive device includes a printed circuit board. A control management unit and a voltage converter are arranged on the printed circuit board, the control management unit classifies target rotation speed signals provided by an ECU into multiple rotation speed intervals, with each rotation speed interval corresponding to a fixed duty ratio. The control management unit receives a target rotation speed signal transmitted from the ECU in a real-time manner, and outputs a pulse width modulation signal having a duty ratio corresponding to the rotation speed interval to which the target rotation speed signal transmitted from the ECU belongs.

Abstract: A brush assembly for a brush motor includes a support member, brush holders, at least four brushes respectively mounted to the brush holders, and first and second motor terminals for connecting with an external power supply. A first filter circuit is connected between the first motor terminal and corresponding first brushes. A second filter circuit is connected between the second motor terminal and corresponding second brushes. The first and second motor terminals and the first and second filter circuits are mounted in a region defined by two corresponding adjacent brushes forming an angle greater than 60 degrees but less than 180 degrees.

Abstract: A brush assembly for a brush motor includes a support member, brush holders, at least four brushes respectively mounted to the brush holders, and first and second motor terminals for connecting with an external power supply. A first filter circuit is connected between the first motor terminal and corresponding first brushes. A second filter circuit is connected between the second motor terminal and corresponding second brushes. The first and second motor terminals and the first and second filter circuits are mounted in a region defined by two corresponding adjacent brushes forming an angle greater than 60 degrees but less than 180 degrees.

Abstract: A method of making a han-burger includes the steps of: forming a burger shell by a dough to have a filling compartment and an opening, preparing a filling with predetermined ingredients and nutrition, and disposing the filling in the filling compartment of the burger shell through the opening thereof, preparing a thick viscous paste, and applying the thick viscous paste to seal the opening of the burger shell to enclose the filling in the filling compartment of the burger shell to form a food product. Accordingly, the thick viscous paste is made of mashed root crop food product which is soft enough to be deformed to match with the shape of the opening of the burger shell and is sticky enough to seal at the opening thereof.

Abstract: A fan and a motor thereof are provided. The motor includes a motor drive device. The motor drive device includes a printed circuit board. A control management unit and a voltage converter are arranged on the printed circuit board, the control management unit classifies target rotation speed signals provided by an ECU into multiple rotation speed intervals, with each rotation speed interval corresponding to a fixed duty ratio. The control management unit receives a target rotation speed signal transmitted from the ECU in a real-time manner, and outputs a pulse width modulation signal having a duty ratio corresponding to the rotation speed interval to which the target rotation speed signal transmitted from the ECU belongs.

Abstract: A brush motor has a housing, an end cap and a brush assembly. The brush assembly includes an brush card, brush cages disposed on the brush card, brushes mounted in the respective brush cages, terminals for connecting with an external power supply, and power supply circuits connecting the terminals to the respective brushes. The brush assembly further includes at least one grounding conductor mounted to the brush card and electrically connected to the power supply circuits. The grounding conductor includes a main portion fixed to the brush card and a tongue extending from the main portion. The tongue includes a bent portion for resilient connection to the end cap or housing.

Abstract: A fuse component configured to provide overcurrent protection for an electric motor comprises a spiral fuse portion and a magnetic core. The spiral fuse portion encloses at least a part of the magnetic core, so that the fuse component is also configured to function as a choke of the electric motor.

Abstract: A commutated DC motor (10) includes a stator (12) and a rotor (14) mounted in the stator (12). The stator (12) has 2P magnetic poles, wherein P is an integer greater than 1. The rotor (14) includes a rotor shaft (81) with a rotor core (85), and a commutator (83) fixed thereto. The rotor core (85) has multiple teeth defining m×P slots therebetween, wherein m is an odd integer greater than 1. The commutator (83) has k×m×P segments, wherein k is 1 or 2. A rotor winding (87) formed by winding a single continuous wire is received in the slots of the rotor core (85) and connected to the segments of the commutator (83), and has k×m winding units. Each winding unit includes P coils in series connection and is directly connected to only two segments.

Abstract: A brush assembly for a brush motor includes a support member, brush holders, at least four brushes respectively mounted to the brush holders, and first and second motor terminals for connecting with an external power supply. A first filter circuit is connected between the first motor terminal and corresponding first brushes. A second filter circuit is connected between the second motor terminal and corresponding second brushes. The first and second motor terminals and the first and second filter circuits are mounted in a region defined by two corresponding adjacent brushes forming an angle greater than 60 degrees but less than 180 degrees.