Abstract: A displacement decoding unit (205) of a mesh decoding device (200) according to the present invention includes: an arithmetic decoding unit (205A) that generates a coefficient level value by performing arithmetic decoding on a displacement bit stream; a context value update unit (205B) that updates a context value using the coefficient level value; a context value buffer (205C) that acquires and accumulates the context value; an arithmetic decoding initialization unit (205D) that initializes the context value for each frame; an inverse quantization unit (205E) that generates a transform coefficient by performing inverse quantization on the coefficient level value; and an inverse transform unit (205F) that generates a decoded displacement by performing inverse transform on the transform coefficient.

Abstract: To provide a package type compressor capable of recovering carbon dioxide in the air while reducing pressure loss. Provided is a package type compressor including: a compressor main body that compresses air; a cooler that cools, by heat exchange with air, compressed air discharged from the compressor main body; a housing that houses the compressor main body and the cooler; at least one first air inlet that is formed in the housing and takes in the air before being compressed by the compressor main body and the air before being used by the cooler; and a first air outlet that is formed in the housing and discharges air after being used by the cooler, in which at least one adsorption material for adsorbing carbon dioxide in the air, and at least one holding section for holding the adsorption material so as to be spaced apart outward with respect to at least one of the first air inlet and the first air outlet are provided.

Abstract: A displacement decoding unit (205) of a mesh decoding device (200) according to the present invention includes: a bypass arithmetic decoding unit (205A) configured to generate a coefficient level value by performing bypass arithmetic decoding on a displacement bit stream; an inverse quantization unit (205B) configured to generate a first transformed coefficient by performing inverse quantization on the coefficient level value; an adder (205D) configured to generate a second transformed coefficient by adding a prediction transformed coefficient and a prediction residual; an inter prediction unit (205F) configured to generate the prediction transformed coefficient by performing inter prediction by using the second transformed coefficient of a reference frame read from the frame buffer; and a second inverse transform unit (205G) configured to generate a decoded displacement by performing second inverse transform on the second transformed coefficient.

Abstract: A joint structure includes a first metallic material having a first projection, a second metallic material similar to and weldable to the first metallic material, and a different material having a first penetrating part and sandwiched between the first and second metallic materials, the different material being difficult to weld to the first and second metallic materials. The first projection is smaller than the first penetrating part and is spaced from the rim of the first penetrating part. The first projection is positioned in the first penetrating part and spaced from the second metallic material by a gap. The gap has a size of a predetermined percentage of the thickness of the first projection to which arc welding is applied. The first and second metallic materials are melted and joined together inside the first penetrating part to compress and fix the different material, so all three are fixed together.

Abstract: A ceramic electronic component includes a main body portion and an outer electrode on a surface of the main body portion. The outer electrode includes a nickel plating layer including sulfur in a compound state and an atomic state. A ratio of an amount of sulfur included in the compound state to all sulfur included in the compound state and the atomic state in the nickel plating layer is about 25% or more and less than about 100%.

Abstract: A circuit of a mesh decoding device 200: generates a binarization syntax by performing arithmetic decoding on the displacement bit stream; updates a context value using the binarization syntax; generates a context value for output using the context value, a bit position, and a syntax read from a context buffer 206D; generates and outputs a syntax to the context buffer 206D by multi-value conversion of the binarization syntax; generates a coefficient level value from the syntax.

Abstract: A displacement decoding unit 206 of a mesh decoding device 200 according to the present invention includes a circuit, wherein the circuit: generates a binarization syntax by performing arithmetic decoding on a displacement bit stream, generates a binarization syntax by performing bypass arithmetic decoding that performs arithmetic decoding while fixing a context value on the displacement bit stream, generates a syntax by multi-value conversion of the binarization syntax, and generates a coefficient level value from the syntax.

Abstract: A mesh decoding device includes: a circuit that decodes a displacement bit stream to generate and output a displacement, wherein the circuit: outputs a video by decoding the displacement bit stream by video encoding, develops and outputs the video as a level value for each image, generates a transformed coefficient by inversely quantizing the level values, and generates the displacement by applying an inverse wavelet transform to the transformed coefficient.

Abstract: A mesh decoding device (200) includes: a circuit that decodes a displacement bit stream to generate and output a displacement, wherein the circuit: decodes a level value from the displacement bit stream, generates a transformed coefficient by inversely quantizing the level value, and generates the displacement by applying an inverse wavelet transform to the transformed coefficient.

Abstract: A welding system includes a tip that biases a welding wire and has a forced power supply mechanism for supplying power to the welding wire at a distal end, a torch including the tip at a distal end, the torch supplying the welding wire toward a welded portion, an automatic machine that holds the torch, and a welding wire straightener attached to the automatic machine, the welding wire straightener correcting a bending tendency of the welding wire.

Abstract: The specification relates to the generation of in-game animation data and the evaluation of in-game animations.

Abstract: A positive electrode active material is provided and includes a lithium nickel composite oxide. The lithium nickel composite oxide has a composition formula represented by LiaNixCoyAl1-x-yO2, x is 0.8 or more and 1 or less, y is 0 or more and 0.2 or less, and a is 0.8 or more and 1.05 or less. Lithium hydroxide and lithium carbonate are contained in a supernatant of a stirred product of the positive electrode active material and pure water in a total amount of 1.0 mass % or less with respect to the positive electrode active material, when measured by a potentiometric titration method. In the positive electrode active material, an intensity ratio of a peak top in 850 eV or more and 854 eV or less to a peak top in 854 eV or more and 860 eV or less is 1.05 or more and 1.45 or less in an X-ray absorption fine structure (XAFS) spectrum for an L-absorption edge of nickel.

Abstract: The specification relates to the generation of in-game animation data and the evaluation of in-game animations.

Abstract: A detector is configured to detect an output of a reflected beam from an exit end surface of a parallel plate. A determination unit is configured to determine that an abnormality occurs in the parallel plate when a detection value of the detector is smaller than a determination threshold.

Abstract: The specification relates to the generation of in-game animation data and the evaluation of in-game animations.

Abstract: The specification relates to the generation of in-game animation data and the evaluation of in-game animations. According to a first aspect of this specification, there is described a computer implemented method comprising: inputting, into an encoder neural network, input data comprising a plurality of input pose parameters indicative of one or more poses of an in-game object in an animation; generating, by the encoder neural network, one or more encoded representations of the one or more poses of the in-game object from the input data; and determining a quality score for a pose of the one or more poses of an in-game object based on the one or more encoded representations.

Abstract: Laser processing device (1) includes: laser-beam switching apparatus (70) that switches between a first optical path and a second optical path as an optical path along which a laser beam is to travel, the first optical path including first fiber (11), the second optical path including second fiber (21) that has a core diameter that is larger than a core diameter of first fiber (11); and processing head (80) that illuminates a same processed point on workpiece (900) with a laser beam that has passed through the first optical path or the second optical path. When illumination with laser beam that has passed through the first optical path is performed for a predetermined period of time, laser-beam switching apparatus (70) switches from the first optical path to the second optical path.

Abstract: A package-type compressor includes a body unit, a controller, a casing, a first cooling air inlet, a second cooling air inlet, a cooling air outlet, a fan duct, a cooling fan, an air cooling type heat exchanger, a machine chamber, and a cooling duct. The cooling duct is provided below the fan duct, the cooling duct causing the cooling air taken in at the second cooling air inlet to flow along the controller toward the suction port of the fan duct. A vertical projection plane of the cooling fan overlaps the machine chamber and the cooling duct.

Abstract: The purpose of the present invention is to provide an animal garment and an animal biological information measurement apparatus that are excellently comfortable. The animal garment includes a knitted fabric, the knitted fabric containing 2 mass % or more and 100 mass % or less of antifungal fibers, and 30 mass % or more and 100 mass % or less of fibers having a single fiber fineness of 0.3 dtex or more and 1.1 dtex or less.

Abstract: There is provided an optical axis alignment mechanism between the laser oscillator and the optical fiber. The laser oscillator emits laser light, which then emerges from the emission end of the optical fiber via the axis alignment mechanism. Part of the laser light is received on the light-receiving surface of the CCD camera of a laser light evaluator. Thus, the laser light evaluator acquires a light intensity distribution. The light intensity distribution is used by the optical axis alignment mechanism to align the axis of the laser oscillator with the axis of the optical fiber.