Abstract: A 3D memory device includes a conductor/insulator stack containing a conductive layer and a dielectric layer alternatingly stacked, channel hole structures in a first region of memory cells in the conductor/insulator stack, a blocking structure adjacent to the first region, and a dummy channel hole structure in the first region. The dummy channel hole structure is adjacent to the blocking structure, and includes a dielectric material that fills a channel hole to form a first dielectric filling structure.

Abstract: This specification discloses resource scheduling methods and apparatuses, electronic devices. The resource scheduling method includes following: estimated resource consumption data of a target container group in a plurality of time periods is determined in response to a resource application request of the target container group, resource amount data of each of a plurality of cluster nodes in the plurality of time periods is obtained, and the target container group is scheduled to at least one of the plurality of cluster nodes based on the estimated resource consumption data and the resource amount data. It can be seen that in this specification, different resource amounts can be allocated to the target container group in different time periods, and the target container group can fully use resources allocated to the target container group in each time period during running, thereby reducing the waste of cluster resources.

Abstract: The tracing method according to the present disclosure includes: coding solar cells disposed in a loading frame according to a frame code of a loading frame, such that each respective solar cell has a respective cell code; obtaining respective process information of the respective solar cell according to a loading order, where the process information includes a code of a process carrier, a code of a workbench and a position code of a solar cell in the process carrier; uploading cell codes and process information of the solar cells to a computer system; and recording and associating, by the computer system, the respective cell code and the respective process information.

Abstract: A method for recognizing at least one object in images by a camera and a processor is provided. The at least one object includes content information and operation direction information. The operation direction information includes inspection direction, re-inspection direction, and a combination thereof. The method includes a first re-inspection step, the first re-inspection step includes using the processor to inspect whether the re-inspection direction of one of the at least one object matches a paring relationship. If so, the processor processes the content information of the at least one object and another one object to generate computational result.

Abstract: A package structure and a method of manufacturing a package structure are provided. The package structure includes a first substrate, a first electronic component, a second substrate and a second electronic component. The first electronic component is disposed over a first through hole of the first substrate. The first electronic component is electrically connected to a first patterned circuit layer of the first substrate through an extending portion of the first patterned circuit layer extending beyond a sidewall of the first through hole. The second electronic component is disposed over a second through hole of the second substrate. The second electronic component is electrically connected to a second patterned circuit layer of the second substrate through an inner extending portion of the second patterned circuit layer extending beyond a sidewall of the second through hole.

Abstract: This specification provides differential privacy-based service analysis methods and apparatuses. According to the methods, the methods include at least one service analysis stage, and any service analysis stage includes at least one round of operations. An nth round of operations of the service analysis stage include the following steps: obtaining target data, where the target data are obtained by performing anonymization processing on to-be-processed data; performing predetermined service analysis on the target data; and if the service analysis succeeds, ending the service analysis stage; or if the service analysis fails, determining an (n+1)th round of privacy budget, and sending the (n+1)th round of privacy budget to the multiple user devices. As such, in a process of performing differential privacy processing on data, a privacy budget can be adaptively adjusted to enhance flexibility of a privacy protection process and improving availability of privacy protection data.

Abstract: A package structure and a method of manufacturing a package structure are provided. The package structure includes a first substrate, a first electronic component, a second substrate and a second electronic component. The first electronic component is disposed over a first through hole of the first substrate. The first electronic component is electrically connected to a first patterned circuit layer of the first substrate through an extending portion of the first patterned circuit layer extending beyond a sidewall of the first through hole. The second electronic component is disposed over a second through hole of the second substrate. The second electronic component is electrically connected to a second patterned circuit layer of the second substrate through an inner extending portion of the second patterned circuit layer extending beyond a sidewall of the second through hole.

Abstract: A method is provided for real-time volumetric rendering of dynamic particles for a processing circuitry. The method includes converting particle data representing each of the dynamic particles into a density volume representing a density distribution of the respective dynamic particle distributed in a 3D space, precomputing a light distribution within the density volume representing a light value for each grid point within the density volume using ray marching from a light source, rendering the dynamic particles in real-time by computing pixel color values determined using ray marching toward a viewpoint position, the density volume, and the light distribution, and outputting a representation of the dynamic particles based on the rendering. The method also includes generating the particle data representing simulated particles composed of a simulated material by a physically-based simulation of natural phenomena, where the generated particle data may include simulated particles movement in the 3D space.

Abstract: A semiconductor package includes a redistribution structure and an encapsulated die electrically connected to the redistribution structure. The redistribution structure includes a first conductive pad, first and second conductive vias, and a first dielectric layer. The first conductive pad includes opposing first and second sides, the first conductive via lands on the first side of the first conductive pad and is tapered in a direction from the first side toward the second side. The second conductive via lands on the second side of the first conductive pad and is tapered in a direction from the second side toward the first side. The first dielectric layer laterally covers the first conductive pad and the first conductive via, and the first dielectric layer includes opposing first and second surfaces. The encapsulated die is disposed below the first side of the first conductive via.

Abstract: A video sequence depicting a person in a medical environment may be obtained and used for determining one or more human models of the person. A first human model representing a first pose or a first body shape of the person may be determined based on a first subset of images from the video sequence, while a second human model representing a second pose or a second body shape of the person may be determined based on a second subset of images from the video sequence. The second 2D or 3D representation of the person may include an adjustment to the first 2D or 3D representation of the person based on the observation of the person provided by the second subset of images.

Abstract: A cross-coupling structure for dielectric cavity filters includes a base and a tuner. The base is communicated with plural resonant cavities, a side through hole and a blind hole, and has a first channel formed between two adjacent resonant cavities which are not used for producing cross-coupling, and a second channel the resonant cavities formed between two adjacent resonant cavities which are used for producing cross-coupling. The side through hole is penetrated through the base and communicated with the second channel. The blind hole is formed on a wall of the second channel and has an opening facing the side through hole. The tuner is entered into the second channel from the side through hole and extended into the blind hole and can be adjustably moved between the opening of the blind hole and the bottom of the blind hole to set a cross-coupling amount target value.

Abstract: The present disclosure discloses a speaker box including a cover fixed between the frame and the magnetic circuit system; the cover includes a bottom wall set at a bottom of the speaker unit and a side wall extending from the bottom wall and set at a side of the speaker unit; the vibration system, the frame, the cover and the magnetic circuit system enclosing a internal space of the speaker unit; the cover is hot pressed from polyethylene glycol terephthalate film, the bottom wall is provided with an array of first leakage holes communicating the internal space and the rear cavity, the side wall is provided with an array of second leakage holes communicating the internal space and the rear cavity. The speaker box can be flexibly applied to a variety of complex shapes of the housing and can enhance the filling amount of sound-absorbing powder.

Abstract: An enhanced GaN high electron mobility transistor (HEMT) radio-frequency device and a manufacturing method thereof are provided. The enhanced GaN HEMT radio-frequency device includes a substrate, a first AlN interposed layer, a GaN buffer layer, a GaN trench layer, a second AlN interposed layer, an AlGaN barrier layer, a p-AlGaN layer, a metal drain electrode, a metal source electrode, and a metal gate electrode. Under an extremely high vacuum degree, metal Mg is doped and diffused to the AlGaN layer to form the p-AlGaN layer, and the metal Mg further forms a p-n junction with the undoped AlGaN layer, thereby depleting a two-dimensional electron gas (2DEG) under the gate. A HfO2 layer covers the metal Mg to prevent oxidation of the metal Mg.

Abstract: A human model such as a 3D human mesh may be generated for a person in a medical environment based on one or more images of the person. The images may be captured using a sensing device that may be attached to an existing medical device such as a medical scanner in the medical environment. Such an arrangement may ensure that unblocked views of the person (e.g., body keypoints of the person) may be obtained and used to generate the human model. The position of the medical device in the medical environment may be determined and used to facilitate the human model construction such that the pose and body shape of the person in the medical environment may be accurately represented by the human model.

Abstract: A negative electrode and a battery employing the same are provided. The negative electrode includes a negative electrode active layer and a protective layer. The protective layer is disposed on the negative electrode active layer, wherein the protective layer includes a nanopowder and a binder. The nanopowder has a specific surface area of 30 m2/g to 1,000 m2/g. The nanopowder has a binding energy less than or equal to ?2.5 eV. The weight ratio of the nanopowder to the binder is from 51:49 to 99:1. The nanopowder is a compound having a structure represented by Formula (I) MiXj??Formula (I) wherein M is Al, Mg, Zr, Zn, or Si, and X is O or N; i is 1, 2 or 3, and j is 1, 2, 3 or 4.

Abstract: An image data association method, system, apparatus, and related computer program product are provided.

Abstract: A device for aligning light-emitting diodes (LEDs) by using a carrier substrate is provided. The carrier substrate defines a plurality of positioning grooves, and each positioning groove is configured for accommodating one of the LEDs. The device includes a carrying part for carrying the carrier substrate, a vibration part connected to the carrying part and for vibrating the carrier substrate, and a magnetic generator on a side of the carrier substrate away from the positioning grooves. A method for aligning LEDs is also provided.

Abstract: A production task scheduling method, system and device for a flexible assembly job shop is provided.

Abstract: The embodiments of the present application provide an electrolyte solution and a lithium-ion battery comprising the same. The electrolyte solution includes a solvent, a lithium salt and a first additive, and the first additive has a molecular formula of wherein R is at least one of an H element, a halogen element or an alkyl group having 1 to 3 carbon atoms. The electrolyte solution provided in the embodiments of the present application has the advantages of having a long shelf life, avoiding the problem of the performance decline of lithium-ion batteries due to deterioration of electrolyte solutions, being capable of inhibiting an increase of internal resistance of the lithium-ion batteries in low-temperature cycles, and improving the performance of the lithium-ion batteries.

Abstract: A blockchain-based method for purchase document transformation and accountability is provided. Offer documents for a real estate transaction are maintained and a review of the documents is performed by comparing populated fields of each document with offer compliance guidelines. When the fields of the offer documents comply with the offer compliance guidelines, the offer documents are grouped as an offer for the transaction. Public and private documents from the offer are formed as separate data blocks, which are provided to a tier of supernodes. Each data block is added to a ledger of transactions via one of the supernodes. A copy of each data block is stored on each of the supernodes. An immutable record of each data block is transmitted from the supernode to a tier of network nodes and the immutable record of each data block is committed to a blockchain via each of the network nodes.