Abstract: Methods and devices are provided to encode and decode a data stream carrying data representative of a three-dimensional scene, the data stream comprising color pictures packed in a color image; depth pictures packed in a depth image; and a set of patch data items comprising de-projection data; data for retrieving a color picture in the color image and geometry data. Two types of geometry data are possible. The first type of data describes how to retrieve a depth picture in the depth image. The second type of data comprises an identifier of a parametric function and a list of parameter values for the identified parametric function.

Abstract: A method includes storing at least one image performance score for each of a set of images, the set of images comprising a plurality of subsets of images, each subset corresponding with a different web page of a plurality of web pages, the at least one image performance score for an image indicating a likelihood that a user will interact with the image; determining a web page score for each of the plurality of web pages based on one or more image performance scores of the subset of images that corresponds with the web page; receiving a query comprising one or more keywords or images; selecting a set of web pages by applying a search engine machine learning model to the one or more keywords and the web page score for each of the plurality of web pages; and presenting the set of web pages at a computing device.

Abstract: An electrochemical cell module includes a plurality of electrochemical cells stacked on one another and each including an electricity generator and a casing, and a housing accommodating the plurality of electrochemical cells. The casing includes a peripheral portion without overlapping the electricity generator as viewed in the stacking direction. The peripheral portion is bent and has its main surface in contact with an inner side surface of the housing.

Abstract: A secondary battery manufacturing method injects large amount of electrolyte twice, and reflects the average value of the amount of firstly injected electrolyte into the amount of secondly injected electrolyte to allow electrolyte to be quantitatively injected in a short time. This can reduce the defect rate when manufacturing batteries such as a large-capacity secondary battery or a long cell model secondary battery in which electrolyte 200 g or more is injected, and can also better improve the performance of the secondary battery.

Abstract: Solid polymer electrolyte fuel cell stacks require a significant nominal compressive loading for proper operation and sealing. This loading is typically provided using relatively thick end plates and tight straps. In certain fuel cell applications, one or more solid polymer electrolyte fuel cell stacks are secured in larger enclosures (e.g. for isolation and crashworthiness in automotive applications). The enclosures however can themselves be sturdy enough to provide the necessary loading on the fuel cell stacks within. The present invention takes advantage of that to allow for use of thinner end plates and/or weaker straps which would otherwise be insufficient for use.

Abstract: Disclosed is a radome 1 for vehicle-mounted radar devices including a base body 2 having an electromagnetic wave permeable substrate 3 and a heater wire 41 laminated on an inner surface side of the substrate 3 and wired in a surface direction of the substrate 3, in which linear portions 411 of the heater wire 41 are arranged side by side at intervals in the surface direction of the substrate 3 in an electromagnetic wave irradiation region R of the substrate 3, and a surface occupancy ratio of the linear portions 411 of the heater wire 41 in the electromagnetic wave irradiation region R of the substrate 3 is set to 1% or more and 24% or less. It is possible to exhibit a practical snow-melting function as a radome for vehicle-mounted radar devices while suppressing attenuation of electromagnetic waves irradiated by a vehicle-mounted radar device within an allowable range.

Abstract: A storage device, including a nonvolatile memory device and a storage controller configured to control the nonvolatile memory device. The nonvolatile memory device includes a memory cell array including a plurality of word-lines stacked on a substrate, a plurality of memory cells provided in a plurality of channel holes, and a word-line cut region dividing the plurality of word-lines into a plurality of memory blocks. The storage controller groups a plurality of target memory cells into outer cells and inner cells. The storage controller includes an error correction code (ECC) decoder configured to perform an ECC decoding operation by obtaining outer cell bits and inner cell bits during a read operation on the plurality of target memory cells, and applying different log likelihood ratio (LLR) values to the outer cell bits and the inner cell bits.

Abstract: A memory controller includes a register to store phase offset value. The phase offset value represents a phase relationship between a memory request signal component and a reference signal. The phase offset value is established through write and read back testing. Transmit circuitry applies the phase offset value in launching the memory request signal component from the IC memory controller to an IC memory device.

Abstract: An on-chip memory is provided. The memory includes wordline sections, input/output (I/O) circuitry, and control circuitry. Each wordline section includes a number of wordlines, and each wordline section is coupled to a different wordline control circuitry. The control circuitry is configured to, in response to receiving an access request including an address, decode the address including determine, based on the address, an associated wordline, and determine, based on the associated wordline, an associated wordline section. The control circuitry is further configured to apply power to wordline control circuitry coupled to the associated wordline section, and access the address.

Abstract: A smart patch includes a computing device to monitor user health metrics. The smart patch also includes an adhesive coupled to a cradle with an opening and coupled to at least two electrodes capable of electrically coupling to the user. The computing device contains one or more sensors, a battery and a sensor window. The sensors are configured to interface with the user to generate physiological data associated with the user's health. The battery is configured to power the sensors. The computing device is removably coupled to the cradle. The cradle is configured to engage the computing device securing the computing device to the adhesive. The electrodes electrically couple to the user's skin and conduct electrical signals between the user and the computing device.

Abstract: A computer-implemented method includes receiving a group of sets. Each set has values for immutable attributes that match values for at least one mutable attribute in a prediction request. The method includes generating a deviation model based on the group of sets. The method includes generating multiple sets of likely mutable attribute values using the deviation model. The method includes automatically selecting a neural network based on at least one of the likely mutable attribute values. The neural network includes a set of layers. Each layer includes a set of nodes. A first layer receives inputs at the set of nodes of the input layer. A last layer outputs, from the neural network, outputs modified by a preceding layer. The method includes generating a likelihood corresponding to the at least one mutable attribute in the prediction request using the neural network.

Abstract: A coordinated fueling system satisfying thousand-second pulsed plasma discharge, including a gas puffing system, a supersonic molecular beam injection system, an ice pellet injection system, a fusion device, a gas puffing port of a wave antenna, a divertor and a plasma. The gas puffing system, the supersonic molecular beam injection system and the ice pellet injection system are provided at different positions of the fusion device to perform deuterium-tritium plasma discharge in a magnetic confinement fusion device. Through coordination of different moments, positions and fueling methods in plasma establishment and maintenance stages, of the stable thousand-second density control of the fusion device, boundary parameters adjustment of the plasma required for wave coupling and effective control of a heat flux of the divertor can be satisfied. A coordinated fueling method is also provided.

Abstract: A method includes generating a plurality of lidar inputs based on the lidar data, where each lidar input from among the plurality of lidar inputs comprises an image-based portion and a geometric-based portion, and where each lidar input from among the plurality of lidar inputs defines a position coordinate of the one or more objects. The method includes performing, for each lidar input from among the plurality of lidar inputs, a convolutional neural network (CNN) routine based on the image-based portion to generate one or more image-based outputs and assigning the plurality of lidar inputs to a plurality of echo groups based on the geometric-based portion. The method includes concatenating the one or more image-based outputs and the plurality of echo groups to generate a plurality of fused outputs and identifying the one or more objects based on the plurality of fused outputs.

Abstract: An electronic device is provided. The electronic device includes a metal housing, a substrate and a radiating element. The metal housing is provided with a slot, and the slot includes an opening end and a closed end. The slot has a first wall of the slot and a second wall of the slot opposite to each other at the position of the opening end. The first wall of the slot is located between the second wall of the slot and the closed end. There is a predetermined distance between the first wall of the slot and the closed end. A feeding portion of the radiating element is connected to a feeding element and a signal is fed through the feeding element, so that the radiating element is used for exciting the metal housing to generate at least one resonance frequency.

Abstract: A wireless microphone system utilizes an antenna structure that supports dual frequency bands. With some embodiments, the wireless microphone system comprises a first apparatus (for example, a wireless transmitter) and an attached second apparatus (for example, an attached microphone), where the chassis of the first apparatus and the housing of the second apparatus support the antenna structure through an electrical connector (for example, through an outer shell of a Cannon (XLR) connector) between the two apparatuses. The chassis and the housing may support first and second halves of a dipole antenna, respectively. The first apparatus supports first and second electrical circuits that are operational within a first and second frequency band, respectively, and that connect to first and second input ports of a combining circuit (for example, a diplexer filter). The output port of the combining circuit connects to the housing through the electrical connector.

Abstract: Disclosed embodiments include a modified M.2 interface that is configured to allow an increased current capacity on power-carrying pins. The power-carrying pins are implemented using an alloy that can sustain current levels in excess of those specified in the M.2 standard while remaining within M.2 standard specified temperature limits. Sockets and corresponding cards in embodiments are modified so that a card requiring the higher current capacity cannot fit into a legacy M.2 standard socket, while a legacy M.2 card can fit into a modified high current M.2 socket. Other embodiments may be described and/or claimed.

Abstract: High-speed connectors and connector assemblies that include structures for alignment and/or improved thermal performance. In one example, a connector assembly, comprising: a housing comprising a port; a wafer assembly with contacts positioned in the port of the housing, the wafer assembly comprising a row of conductors, the row of conductors comprising a plurality of communication signal conductors and a plurality of ground conductors arranged in the row of conductors, wherein each communication signal conductor is positioned next to a ground conductor among the plurality of ground conductors in the row of conductors; and a ground path assembly comprising the plurality of ground conductors, a conductive ground shield, and a metal ground shield insert that is stitch mated with the conductive ground shield.

Abstract: An electronic device can include a metallic housing defining an interior that contains one or more systems of the electronic device. The metallic housing can further define a pocket within the metallic housing separated from the interior. The pocket can have a window to an exterior of the metallic housing to facilitate wireless power transfer. An electronic device can include a non-metallic housing defining an interior that contains one or more systems of the electronic device and a wireless power transfer module that further includes a metallic structure defining a receptacle separated from the interior housing. The receptacle can have at least one open side to facilitate wireless power transfer. In either case, the wireless power transfer coil can be disposed at least partially or completely within the pocket or receptacle.

Abstract: Systems, methods and computer readable products are provided for enabling dynamic loading of one or more digital image branding functions associated with one or more distribution rules. A distribution rule is used to target a group of end users that are selected from a dataset mapping a plurality of end-users according to one or more distribution rules. Instructions are forwarded to present an indication the digital image branding function to each member of the end users group.

Abstract: A method for diagnostic imaging reconstruction uses a prior image xpr from a scan of a subject to initialize parameters of a neural network which maps coordinates in image space to corresponding intensity values in the prior image. The parameters are initialized by minimizing an objective function representing a difference between intensity values of the prior image and predicted intensity values output from the neural network. The neural network is then trained using subsampled (sparse) measurements of the subject to learn a neural representation of a reconstructed image. The training includes minimizing an objective function representing a difference between the subsampled measurements and a forward model applied to predicted image intensity values output from the neural network. Image intensity values output from the trained neural network from coordinates in image space input to the trained neural network are computed to produce predicted image intensity values.