Abstract: This application discloses an application interface control method performed by a computer device. The method includes: displaying an application interface in a landscape state, the application interface including operable elements, and the operable elements including at least one first operable element located in a one-handed operation region and at least one second operable element located outside the one-handed operation region; receiving a shielding operation on a light sensor, the light sensor being configured to collect light intensity of an environment in which the computer device is located, and the light sensor being located in the one-handed operation region in the landscape state; and controlling, based on the shielding operation, the application interface to move, to cause the second operable element to move into the one-handed operation region. Using the foregoing method helps improve efficiency of an one-handed operation in a landscape state.

Abstract: A method for performing interactions between virtual objects in a virtual environment is performed by an electronic device. The method includes: displaying an interaction interface, the interface including one or more selectable interactions; in response to a trigger operation for any interaction, displaying an action marker of the interaction associated with a first virtual object; and when at least one second virtual object appears within an interaction range of the first virtual object and carries the action marker of the interaction, playing a marker fusion special effect based on a plurality of action markers within the interaction range, the marker fusion special effect providing an interaction special effect when the plurality of action markers converge within the interaction range. By using the above method, the interaction modes based on interactions are enriched.

Abstract: Provided is a game system where a player of a game can contribute to a team by an action. The game system includes a character action control unit that controls actions of a player character in the play field based on instructions of the player, a point giving control unit configured to add a number of points associated with a neutral character to a point value associated with the player character in response to the neutral character reaching a predetermined state relative to the player character, a scoring unit configured to convert the point value associated with the player character to a score of its team when the player character is located in a predetermined area provided in the play field and completes a score transferring operation, and an outcome determination unit configured to determine an outcome of the game by comparing scores associated with different teams.

Abstract: Provided in the present invention are a dynamic collection device for an oil film and temperature distribution in a grinding zone and an operating method thereof. A spectroscope and a 45-degree flat mirror are utilized to carry out optical imaging of the permeation and infiltration of the grinding fluid in a grinding zone during a grinding process, and a video signal imported into a high-speed camera is converted into a digital signal processed by a CCD photosensitive element, and a dynamic image is imported for dynamic collection. Infrared radiation emitted from the grinding zone is reflected through the 45-degree flat mirror, and transmitted to the thermal imaging camera, and the signal is transmitted to an internal infrared detector. The infrared detector adjusts and amplifies the received signal and outputs it to an infrared thermal imaging chip. After image processing, the temperature distribution image is imported for dynamic collection.

Abstract: Provided is a temperature control method for semiconductor process, comprising: setting a first measurement point of a first point distribution in a first process device to measure a temperature in the first process device; and setting a second measurement point of a second point distribution in a second detection device to measure a target parameter; wherein the first point distribution comprises a concentric circle-shaped dot matrix with unequal radial spacings; and the second point distribution has a concentric circle-shaped dot matrix corresponding to the first point distribution.

Abstract: Provided is a gas distribution element and a heat treatment device containing the gas distribution element. The gas distribution element comprises at least two regions with different hole distribution densities. Specifically, the gas distribution element comprises a first region defined by a first distance radially extending outward from a geometric center, and a second region defined by a second distance radially extending from an outermost edge toward the geometric center; and the first region and the second region respectively have holes with different distribution densities.

Abstract: A heat treatment apparatus is provided, which includes: a reaction chamber defined by an upper cover plate, a lower cover plate and a reaction chamber body; an infrared emitter located at an end of the upper cover plate; an infrared reflection sensor located at another end of the upper cover plate, and an infrared transmission sensor located at another end of the lower cover plate. The infrared emitter and the infrared reflection sensor are located at a side of the upper cover plate facing to the reaction chamber, the infrared transmission sensor is located at a side of the lower cover plate facing to the reaction chamber, the infrared emitter is located on a sidewall of an end of the reaction chamber body, and the infrared reflection sensor and the infrared transmission sensor are located on a sidewall of another end of the reaction chamber body.

Abstract: A device for supplying and recovering a minimal quantity lubricant in a magnetic field-assisted abrasive grinding, including a grinding wheel guard assembly, including a grinding wheel guard, grinding wheel, and wind deflector; a magnetic worktable mounted on the guard, and a magnetic clamp on the worktable; a controllable magnetic field assembly, including a permanent magnet and a first guide rail mechanism mounted on the deflector, the magnet being connected to the mechanism and to a recovering and filtering device; a controllable nozzle assembly, connected to the deflector on an opposite side of the magnetic field assembly, including a nozzle connected to a linear motion mechanism; and a controlling and monitoring assembly, including a vision camera on the worktable, connected to a system control box. The magnetic nanofluid can exert the optimal lubricating properties and cooling performance under the magnetic field-assisted abrasive grinding, and the magnetic nanoparticles can be further recycled.

Abstract: In a method for a target operation, a target virtual character is displayed in a game scene. The game scene includes a group of virtual objects and each virtual object in the group of virtual objects is available for the target virtual character to perform a target operation. A batch option is displayed when the target operation is selected by the target virtual character for a subset of the group of virtual objects and a number of the subset of the group of virtual objects is greater than or equal to a preset threshold. A batch target operation is performed based on a trigger operation on the batch option. The batch option is configured to perform the batch target operation on the group of virtual objects.

Abstract: A method includes displaying a game image including a first virtual character at a first space location in a game scene of a gaming application. The game scene includes a target sound associated with a second space location in the game scene. The method also includes displaying first orientation prompt information of the target sound according to a three-dimensional virtual sphere in the game image. The first orientation prompt information includes a first marker, a second marker, and a first connecting line between the first marker and the second marker. The first marker is located at a first location of the three-dimensional virtual sphere associated with the first space location, the second marker is located at a second location of the three-dimensional virtual sphere associated with the second space location, and the first connecting line indicates a first orientation of the second space location relative to the first space location.

Abstract: Provided is a game system where a player of a game can contribute to a team by an action. The game system includes a character action control unit that controls actions of a player character in the play field based on instructions of the player, a point giving control unit configured to add a number of points associated with a neutral character to a point value associated with the player character in response to the neutral character reaching a predetermined state relative to the player character, a scoring unit configured to convert the point value associated with the player character to a score of its team when the player character is located in a predetermined area provided in the play field and completes a score transferring operation, and an outcome determination unit configured to determine an outcome of the game by comparing scores associated with different teams.

Abstract: An interactive display system comprises at least one display unit (3), at least one sensing unit, and at least one control unit. The control unit(s) is/are configured to use the sensing unit(s) to detect a certain combination of user actions, e.g. a combination of a user (51) pointing to an area of the display unit(s) and a user action of a different type, and to use the display unit(s) to display a machine readable code, e.g. a QR code, in dependence on the certain combination of user actions being detected.

Abstract: There is provided a lighting apparatus and a method for reducing discomfort glare. The method comprises a step of providing a first portion of light radiation in a first incident angle range; and another step of providing a second portion of light radiation in a second incident angle range consecutive to the first incident angle range. The first incident angle range is greater than the second incident angle range viewed from a vertically downward direction of a light source emitting the light radiation, and the correlated color temperature of the first portion of light radiation is lower than that of the second portion of light radiation.

Abstract: Disclosed are an ultra-high molecular weight polyethylene resin for fiber and a preparation method thereof. The initial crystallinity of the resin is 60.5 to 90%, the volume average particle size is between 100 and 350 ?m, the particle-size distribution is 1.0-2.1, the molecular weight is 2-7 million, the tensile breaking stress is 30 to 60 MPa, the bulk density of the resin is 0.10 to 0.50 g/cm3, the infiltration time in the solvent decalin is 0.5 to 11 min, the decalin absorption amount of the resin is 2 to 50 g of decalin per 100 g of ultra-high molecular weight polyethylene resin, and the white oil absorption amount is 5 to 60 g of decalin per 100 g of ultra-high molecular weight polyethylene resin. The ethylene homopolymerization is performed using a slurry polymerization process in the presence of a main catalyst and a co-catalyst.

Abstract: The invention discloses a lighting device for a road lighting luminaire and a lighting luminaire comprising the lighting device. The lighting device comprises a reflector (301), which comprises a reflecting surface (3011) formed by revolving a parabolic curve around a first axis (y) through a predetermined angle, wherein said parabolic curve has an aperture at its vertex, said first axis axis being co-planar with said parabolic curve, and extending substantially perpendicularly to the axis (x) of symmetry of said parabolic curve, and being located at or outside of said aperture of said parabolic curve. The lighting device further comprises a LED light source (302), which is disposed at an entry to said reflecting surface, with said entry corresponding to said aperture of said parabolic curve. In this way, light distribution can be controlled in the same way in any plane containing the first axis within the range of the predetermined angle.

Abstract: The invention proposes a lighting device (250). The lighting device (250) for road lighting comprises a lighting module and a control module coupled to the lighting module, and configured to control the lighting module to radiate a first light beam (221) towards a first direction to generate a first lighting pattern on the road surface (B), when a first predetermined condition is satisfied, and to control the lighting module to radiate a second light beam (231) towards a second direction to generate a second lighting pattern on the road surface (A), when a second predetermined condition is satisfied, wherein the first direction is oriented to go along the traffic direction and the second direction is oriented to go opposite the traffic direction.

Abstract: A power MOSFET has a main-FET (MFET) and an embedded current sensing-FET (SFET). MFET gate runners are coupled to SFET gate runners by isolation gate runners (IGRs) in a buffer space between the MFET and the SFET. In one embodiment, n IGRs (i=1 to n) couple n+1 gates of a first portion of the MFET (304) to n gates of the SFET. The IGRs have zigzagged central portions where each SFET gate runner is coupled via the IGRs to two MFET gate runners. The zigzagged central portions provide barriers that block parasitic leakage paths, between sources of the SFET and sources of the MFET, for all IGRs except the outboard sides of the first and last IGRs. These may be blocked by increasing the body doping in regions surrounding the remaining leakage paths. The IGRs have substantially no source regions.

Abstract: Disclosed are an ultra-high molecular weight polyethylene resin for fiber and a preparation method thereof. The initial crystallinity of the resin is 60.5 to 90%, the volume average particle size is between 100 and 350 ?m, the particle-size distribution is 1.0-2.1, the molecular weight is 2-7 million, the tensile breaking stress is 30 to 60 MPa, the bulk density of the resin is 0.10 to 0.50 g/cm3, the infiltration time in the solvent decalin is 0.5 to 11 min, the decalin absorption amount of the resin is 2 to 50 g of decalin per 100 g of ultra-high molecular weight polyethylene resin, and the white oil absorption amount is 5 to 60 g of decalin per 100 g of ultra-high molecular weight polyethylene resin. The ethylene homopolymerization is performed using a slurry polymerization process in the presence of a main catalyst and a co-catalyst.

Abstract: The invention proposes a lighting device (250). The lighting device (250) for road lighting comprises a lighting module and a control module coupled to the lighting module, and configured to control the lighting module to radiate a first light beam (221) towards a first direction to generate a first lighting pattern on the road surface (B), when a first predetermined condition is satisfied, and to control the lighting module to radiate a second light beam (231) towards a second direction to generate a second lighting pattern on the road surface (A), when a second predetermined condition is satisfied, wherein the first direction is oriented to go along the traffic direction and the second direction is oriented to go opposite the traffic direction.