Abstract: Embodiments of this application provide a connection structure and an electronic device. The electronic device includes at least a middle frame, a metal structural member, and a fastener; the metal structural member has a first through hole, the middle frame has a second through hole, and the fastener passes through the first through hole and the second through hole; at least one through groove is provided on the metal structural member, a surface of the through groove facing away from the middle frame is recessed, and the through groove extends to at least one outer edge of the metal structural member; and a surface of the through groove facing the middle frame is protruded. In this way, existence of a gap between the metal structural member and the middle frame in scenarios such as falling can be avoided, and a problem of poor overall performance of the electronic device.

Abstract: Disclosure regards a temperature sensor and a temperature-sensing data processing module, including two counting units, each configured to set a reference clock signal and a frequency conversion signal to be a counting-clock signal and a counting-sample signal according to a control signal, wherein during a sampling period consisting of at least one signal cycle of the counting-sample signal, the two counting units count the numbers of rising edges and falling edges of the counting-clock signal; and a count-control unit configured to generate a doubled-frequency counting value based on a sum of the number of rising edges and the number of falling edges to generate a temperature value based on the doubled-frequency counting value and a temperature-frequency fitting function. Therefore, problems regarding temperature estimation errors in the prior art are effectively solved.

Abstract: Disclosure regards a temperature sensor and a temperature-sensing data processing module, including two counting units, each configured to set a reference clock signal and a frequency conversion signal to be a counting-clock signal and a counting-sample signal according to a control signal, wherein during a sampling period consisting of at least one signal cycle of the counting-sample signal, the two counting units count the numbers of rising edges and falling edges of the counting-clock signal; and a count-control unit configured to generate a doubled-frequency counting value based on a sum of the number of rising edges and the number of falling edges to generate a temperature value based on the doubled-frequency counting value and a temperature-frequency fitting function. Therefore, problems regarding temperature estimation errors in the prior art are effectively solved.

Abstract: The present application discloses a metering system for calculating a real-time profit or loss of a gas station, including a metering module, a level gauge of the oil tank, and a communication management machine with a built-in data processing module; the metering module and the level gauge are respectively communicated with the communication management machine; the oil tank, an oil pipeline of the oil tank and an oil inlet of the fuel dispenser are respectively provided with a sensor array module for collecting density data of the oil therein; the sensor array module includes a plurality of oil density sensors; the sensor array modules are communicated with the communication management machine; the built-in data processing module receives and processes data from the metering module, the level gauge and the sensor array modules respectively.

Abstract: The present application discloses a metering system for calculating a real-time profit or loss of a gas station, including a metering module, a level gauge of the oil tank, and a communication management machine with a built-in data processing module; the metering module and the level gauge are respectively communicated with the communication management machine; the oil tank, an oil pipeline of the oil tank and an oil inlet of the fuel dispenser are respectively provided with a sensor array module for collecting density data of the oil therein; the sensor array module includes a plurality of oil density sensors; the sensor array modules are communicated with the communication management machine; the built-in data processing module receives and processes data from the metering module, the level gauge and the sensor array modules respectively.

Abstract: A electrical switch has a first substrate, a first conducting layer disposed on the first substrate, a first dielectric layer disposed on the first conducting layer and a second conducting layer disposed on the first dielectric layer, and the second conducting layer disposed on the second substrate, and a conductive via connected to the first conducting layer and extending through the first dielectric layer. Active dielectric has a first conductor, a first dielectric layer disposed on the first conducting layer, one or more electrical switches disposed on the first dielectric layer, a dielectric layer disposed between neighboring electrical switches, the second dielectric layer disposed on the last electrical switch, and the second conducting layer disposed on the second dielectric layer.

Abstract: A microstrip antenna includes a dielectric substrate, a radiating plate, and a single feed connection. In these instances, the rectangular radiating plate is affixed to the dielectric substrate and having a center point, and the radiating patch defines a first aperture and a second aperture on opposite sides of the center point, each aperture having a center longitudinally aligned with the center point. The single feed connection is laterally offset from a point on a virtual line, wherein the virtual line is located between two opposite corners of the rectangular radiating patch and passes through the center point.

Abstract: Disclosed is a screenshot processing method including: generating a screenshot of a displayed screen; determining at least one target area, to which a preset function is added, from a whole area of the generated screenshot; and generating a screenshot file where data for executing the preset function is combined with the screenshot.

Abstract: A computer-implemented method includes receiving from a codeset compiler a request for a codeset converter to convert from a source codeset to a target codeset. A mapping table is generated responsive to the request, where the mapping table maps from the source codeset to the target codeset. An applicable codeset converter compiler is selected, from among a plurality of available codeset converter compilers, for compiling a requested codeset converter from the source codeset to the target codeset. The requested codeset converter is compiled with the applicable codeset converter compiler, using a computer processor, responsive to the request. The requested codeset converter is returned to the codeset compiler.

Abstract: The present disclosure discloses a mosaic screen. The mosaic screen comprises a box body, a backlight module and a plurality of display modules spliced with each other. The box body comprises four side walls and one box bottom. The plurality of display modules and the box bottom are oppositely fixed on the box body. The backlight module comprises a plurality of lamp panels arranged on the four side walls. Each of the lamp panels comprises: a baseplate, a light source fixing plate, and a light source fixed on the light source fixing plate. The light source fixing plate is connected with a first side of the baseplate close to the display modules, and forms an included angle with the baseplate.

Abstract: Technical solutions are described for verifying translatability compliance of a new code for a computer program product includes receiving a notification about a check-in request for the new code, and in response determining whether to verify the translatability compliance of the new code. The method further includes, in response to the translatability compliance being verified, determining whether the new code includes a hardcoded message. Further, in response to identifying the hardcoded message, the method includes sending a warning notification to a developer of the new code. Also, the method includes enabling the check-in of the new code in response to the translatability compliance not being verified.

Abstract: A side snowplow including a land leveler, comprising: a rear mounted seat, a hydraulic cylinder I, a pull rod, a snow-pushing board, an oscillating rod, a hydraulic cylinder II, and a front mounted seat. The rear mounted seat is fixed on a rear portion of a rear rack of the land leveler and connected to the pull rod; the hydraulic cylinder I is hingedly connected to the rear mounted seat, and the pull rod; and the snow-pushing board is positioned at a left side or a right side of the land leveler and inclines toward a direction that the land leveler moves, a rear end of the snow-pushing board being connected to the hinge plate II, a front end of the snow-pushing board being connected to the hinge plate III.

Abstract: A computer-implemented method includes receiving from a codeset compiler a request for a codeset converter to convert from a source codeset to a target codeset. A mapping table is generated responsive to the request, where the mapping table maps from the source codeset to the target codeset. An applicable codeset converter compiler is selected, from among a plurality of available codeset converter compilers, for compiling a requested codeset converter from the source codeset to the target codeset. The requested codeset converter is compiled with the applicable codeset converter compiler, using a computer processor, responsive to the request. The requested codeset converter is returned to the codeset compiler.

Abstract: Technical solutions are described for verifying translatability compliance of a new code for a computer program product includes receiving a notification about a check-in request for the new code, and in response determining whether to verify the translatability compliance of the new code. The method further includes, in response to the translatability compliance being verified, determining whether the new code includes a hardcoded message. Further, in response to identifying the hardcoded message, the method includes sending a warning notification to a developer of the new code. Also, the method includes enabling the check-in of the new code in response to the translatability compliance not being verified.

Abstract: Disclosed aspects may include collecting a set of globalization data. The set of globalization data may relate to a set of globalization parameters. Based on the set of globalization data, it may be determined to execute a set of globalization testing operations. Accordingly, the set of globalization data may be processed by executing the set of globalization testing operations. In response to the processing, a set of globalization test output data can be established.

Abstract: Disclosed aspects may include examining a set of product development data of a product development environment. In response to the examining, a set of globalization data may be identified. The set of globalization data may relate to a set of globalization parameters. In response to the identifying, the set of globalization data may be transmitted. Disclosed aspects may include receiving a set of globalization data which relates to a set of globalization parameters. By processing the set of globalization data using a set of globalization testing operations, a globalization test output can be determined. In response to the determining, the globalization test output can be provided.

Abstract: Disclosed aspects may include examining a set of product development data of a product development environment. In response to the examining, a set of globalization data may be identified. The set of globalization data may relate to a set of globalization parameters. In response to the identifying, the set of globalization data may be transmitted. Disclosed aspects may include receiving a set of globalization data which relates to a set of globalization parameters. By processing the set of globalization data using a set of globalization testing operations, a globalization test output can be determined. In response to the determining, the globalization test output can be provided.

Abstract: Disclosed aspects may include collecting a set of globalization data. The set of globalization data may relate to a set of globalization parameters. Based on the set of globalization data, it may be determined to execute a set of globalization testing operations. Accordingly, the set of globalization data may be processed by executing the set of globalization testing operations. In response to the processing, a set of globalization test output data can be established.

Abstract: A side snowplow including a land leveler, comprising: a rear mounted seat (1), a hydraulic cylinder I (3), a pull rod (4), a snow-pushing board (7), an oscillating rod (10), a hydraulic cylinder II (11), and a front mounted seat (12). The rear mounted seat (1) is fixed on a rear portion of a rear rack of the land leveler and connected to the pull rod (4); the hydraulic cylinder I (3) is hingedly connected to the rear mounted seat (1), and the pull rod (4); and the snow-pushing board (7) is positioned at a left side or a right side of the land leveler and inclines toward a direction that the land leveler moves, a rear end of the snow-pushing board (7) being connected to the hinge plate II (6), a front end of the snow-pushing board (7) being connected to the hinge plate III (8).