Abstract: A cooling apparatus and an electronic device, where, the cooling apparatus includes: a condensing part and a sealing part, where the sealing part can accommodate a cooling liquid, and a circuit board mounted with a heat-producing element can be immersed in the cooling liquid; and the condensing part includes a condensing tube and an air cooling structure used for dissipating heat of the condensing tube, the condensing tube is connected with the sealing part, and the air cooling structure is provided on at least one side of the condensing tube.

Abstract: Provided are a cruise method and apparatus of a heavy pan-tilt, a medium, and an electronic device. The method includes the following steps: A starting preset position of the heavy pan-tilt performing a preset position cruise in a current unit rotation stage of a current pan-tilt cruise cycle is determined, where one unit rotation stage corresponds to one rotation; the starting preset position is taken as a stop starting point, and at least two stop preset positions of the heavy pan-tilt in the current unit rotation stage are determined from preset positions divided in advance, where two adjacent stop positions in the same unit rotation stage are spaced by a preset number of preset positions; and the heavy pan-tilt is controlled to rotate sequentially on the at least two stop preset positions of the current unit rotation stage.

Abstract: A method and an apparatus for constructing large-scale urban point cloud dataset and extracting building instance. The method includes obtaining a point cloud feature corresponding to a target point cloud; determining a foreground semantic map, an instance perception feature, and a center offset vector corresponding to the target point cloud based on the point cloud feature; selecting a plurality of building candidate points from building foreground points in the foreground semantic map, determining a relational matrix between the building foreground points and the building candidate points based on the instance perception feature and the center offset vector, determining an instance tag of each building foreground point based on the relational matrix, and merging the instance tag to obtain a result of a building candidate instance; and scoring the result of the building candidate instance, and determining a result of a building instance based on the scoring.

Abstract: A memory device is provided and includes a memory block that has a plurality of memory cells that are arranged in a plurality of word lines. The memory device also includes a plurality of word line switch transistors that are electrically coupled with the plurality of word lines. Some of the word line switch transistors have a first width and some of the word line switch transistors have a second width that is different than the first width. By providing the word line switch transistors with different widths, the size of a word line switch area in the memory device can be optimized.

Abstract: A semiconductor device structure includes nanostructures disposed over a substrate. The structure also includes a gate structure surrounding the nanostructures. The structure also includes inner spacers disposed over opposite sides of the gate structure. The structure also includes source/drain epitaxial structure disposed over opposite sides of the nanostructures. An air gap is disposed between the inner spacers and the source/drain epitaxial structure.

Abstract: Methods, systems, and apparatus, including computer programs encoded on a computer storage medium, for generating an output video conditioned on an input. The video generation method can be implemented by a system including one or more computers. The system receives a conditioning input, and initializes a current intermediate representation of the output video. At each of a plurality of iterations, the system updates the current intermediate representation using a first denoising diffusion model and a second denoising diffusion model conditioned on the conditioning input.

Abstract: Processing to generate a graph and processing to search for a tracking target by referring the graph are performed. In the processing to search for the tracking target, the feature quantity of the tracking target is extracted from the image of the tracking target. Also, a moving body having the feature quantity that is most similar to the tracking target feature quantity is specified from the moving body feature quantities extracted from at least two moving body images represented by at least two nodes constituting the graph. Then a tracking target graph including a node representing a tracking identification number assigned to the identified moving body and at least one node connected to the node representing the tracking identification number via at least one edge is specified.

Abstract: A computer program product comprising a non-transitory computer-readable medium storing instructions, that when executed by a computer processor, cause the computer processor to discretize distinct surfaces of a 3D model defining nominal geometry of a component to be manufactured using an additive manufacturing machine; define a build orientation of the 3D model, the build orientation comprises an initial build plane and a build direction; apply one or more in-plane offsets to at least one of the discretized distinct surfaces of the 3D model; and generate an offset 3D model for use by the additive manufacturing machine to manufacture the component such that a manufactured component comprises the nominal geometry defined by the 3D model, where the offset 3D model defines the nominal geometry of the component offset by the one or more in-plane offsets applied to the at least one of the discretized distinct surfaces of the 3D model.

Abstract: A sensing network element obtains sensing data. The sensing network element obtains first feature information of a first terminal device. The sensing network element obtains first identifier information of the first terminal device. The sensing network element determines, based on the sensing data, the first feature information, and the first identifier information, that a target terminal device in the sensing data is the first terminal device.

Abstract: An organometallic precursor for extreme ultraviolet (EUV) lithography is provided. An organometallic precursor includes an aromatic di-dentate ligand, a transition metal coordinated to the aromatic di-dentate ligand, and an extreme ultraviolet (EUV) cleavable ligand coordinated to the transition metal. The aromatic di-dentate ligand includes a plurality of pyrazine molecules.

Abstract: A semiconductor device structure, along with methods of forming such, are described. The structure includes a first channel region disposed over a substrate, a second channel region disposed adjacent the first channel region, a gate electrode layer disposed in the first and second channel regions, and a first dielectric feature disposed adjacent the gate electrode layer. The first dielectric feature includes a first dielectric material having a first thickness. The structure further includes a second dielectric feature disposed between the first and second channel regions, and the second dielectric feature includes a second dielectric material having a second thickness substantially less than the first thickness. The second thickness ranges from about 1 nm to about 20 nm.

Abstract: A method of manufacturing a semiconductor device includes forming a dielectric layer conformally over a plurality of fins on a substrate, forming a first high-k layer conformally over the dielectric layer, and forming a flowable oxide over the first high-k layer. Forming the flowable oxide includes filling first trenches adjacent fins of the plurality of fins. The method further includes recessing the flowable oxide to form second trenches between adjacent fins of the plurality of fins, forming a second high-k layer over the first high-k layer and the flowable oxide, performing a planarization that exposes top surfaces of the plurality of fins, and recessing the dielectric layer to form a plurality of dummy fins that include remaining portions of the first and second high-k layers and the flowable oxide.

Abstract: Provided is a light-emitting element including: a first electrode; a first layer provided on the first electrode and including at least a light-emitting layer, the first layer being non-polar; an electron transport layer that is a second layer provided directly on the first layer and including at least one aromatic derivative selected from an aromatic derivative having a benzene ring skeleton containing one or more carboxyl groups and an aromatic derivative having a biphenyl skeleton containing one or more carboxyl groups, and metal oxide nanoparticles having electron transport properties; and a second electrode provided on the electron transport layer serving as the second layer.

Abstract: A display panel includes a driver circuit including shift registers with N stages and being cascade with each other, where N?2, and each shift register includes a first control portion and a second control portion. The first control portion is configured to control a first output signal, where the first output signal of an i-th stage of shift register is an input signal of a j-th stage of shift register, and 1?i?N, 1?j?N. The second control portion is configured to receive at least the first output signal and a frequency control signal and control a second output signal. In a case where the first output signal is an effective pulse and a time period of the effective pulse is within a time period of an effective pulse of the frequency control signal, the second output signal is the effective pulse.

Abstract: The memory device includes sensing circuitry that senses data in the memory cells of a selected word line. If the memory device is in the first operating mode, the sensing circuitry senses the selected word line with a first sensing process that includes applying a first voltage to a source side of at least one NAND string and ramping at least one voltage applied to the memory block to a target voltage over a first duration. If the memory device is in the second operating mode, the sensing circuitry senses the selected word line with a second sensing process that includes applying a second voltage to the source side of at least one NAND string and ramping the at least one voltage applied to the memory block to the target voltage over a second duration that is greater than or equal to the first duration.

Abstract: A video encoding apparatus includes a content activity analyzer circuit and a video encoder circuit. The content activity analyzer circuit applies a content activity analysis process to a plurality of frames, and generate a plurality of content activity analysis results, wherein the plurality of frames are derived from a plurality of input frames of the video encoding apparatus. The video encoder circuit performs a video encoding process to generate a bitstream output of the video encoding apparatus. At least one frame is not encoded into the bitstream output according to the plurality of content activity analysis results.

Abstract: A load port is capable of monitoring various environmental parameters associated with a transport carrier to minimize and/or prevent exposure of the semiconductor substrates therein to increased humidity, increased oxygen, increased vibration, and/or one or more other elevated environmental conditions that might otherwise contaminate the semiconductor substrates, damage the semiconductor substrates, and/or cause processing defects. For example, the load port may monitor the environmental parameters as indicators of a potential blockage of a diffuser of the transport carrier, and a relief valve may be used to divert a gas away from the transport carrier based on a determination that a diffuser blockage has occurred. In this way, the gas may be diverted through the relief valve and away from the transport carrier to prevent increased humidity, contaminants, and/or vibration from contaminating and/or damaging the semiconductor substrates.

Abstract: Disclosed is an integrated washer-dryer, including: a drum and a drying module assembly, the drying module assembly includes a moisture-absorbing and dehumidifying component, a moisture-absorbing passage, and a dehumidifying passage; the moisture-absorbing passage includes an air inlet and air outlet of the moisture-absorbing passage; the drum is communicated with the air inlet and air outlet of the moisture-absorbing passage, respectively; a fan for the moisture-absorbing passage is arranged in the moisture-absorbing passage, so as to form a moisture-absorbing airflow in the drum and in the moisture-absorbing passage; a fan for the dehumidifying passage is arranged in the dehumidifying passage, so as to form a dehumidifying airflow in the dehumidifying passage; and the moisture-absorbing and dehumidifying component is disposed in a path of the moisture-absorbing passage and the dehumidifying passage, such that the moisture-absorbing airflow and the dehumidifying airflow both flow through the moisture-absorbi

Abstract: An installation unit of the analyte detection device and use method are provided. The installation unit includes: a housing, including at least two first buckles; a parallel slider module, which is provided with the second buckles corresponding to the first buckles, and the first buckles separately coupled with the second buckles; an analyte detection device; an auxiliary-needle module; an triggering module. When the triggering module moves to the far end relative to the housing, it cancels the coupling of the first buckles and the second buckles to implement the installation action; and an elastic module. When using the installation unit, the user only needs to attach the near end of the installation unit to the skin surface and press the housing at the far end to complete the installation of the analyte detection device, which is simple in structure and convenient in use.

Abstract: A device selection method includes receiving, by a first edge enabler server (EES) from a second EES, information for requesting to determine a first edge application server (EAS) for a terminal device served by the second EES. The method also includes, after the first EES receives the information for requesting to determine the first EAS for the terminal device served by the second EES, determining, by the first EES, the first EAS based on at least one of information of a first network operator serving the terminal device or information of a first edge computing service provider serving the terminal device. The method further includes sending, by the first EES, information about the first EAS to the second EES.