Abstract: A control method. The control method includes determining whether a second electronic device is placed on a touch panel of a first electronic device, the touch panel including a first electrode layer, the second electronic device including a second electrode layer, the second electrode layer being configured to form a charging capacitor unit with the first electrode layer; controlling the first electrode layer and the second electrode layer opposite to the first electrode layer to form the charging capacitor unit when it is determined that the second electronic device is placed on the touch panel; and controlling a first power module of the first electronic device to provide power to the first electrode layer to supply power to the second electronic device through the charging capacitor unit; or, controlling the first power module to receive power transmitted by the second electronic device through the charging capacitor unit.

Abstract: A processor power consumption control method includes responding to a processor being woken up, obtaining an operating parameter of a system by the processor when the system is in an operating state, determining a current operating scenario of the system based on the operating parameter, and configuring data related to a wake-up frequency of the processor based on the current operating scenario. Different the wake-up scenarios correspond to different wake-up frequencies of the processor.

Abstract: A processing method includes: obtaining, by a first processing unit, a first monitoring data from a first sensing unit, the first sensing unit monitoring a target parameter provided by a power supply to a target processing unit, and the target parameter representing performance of the target processing unit in a running state; obtaining, by the first processing unit, a second monitoring data from an intelligent engine, the intelligent engine in the running state managing a currently running target program; matching, by the first processing unit, the first monitoring data and the second monitoring data with a smart scenario model to determine an application scenario of an electronic device; and adjusting, by the first processing unit, the target parameter of the target processing unit based on the application scenario.

Abstract: A signal processing method includes: obtaining an audio signal; in response to a first control signal, performing a first processing on the audio signal to obtain a first audio signal, the first processing being used to adjust a volume gain of the audio signal; based on the first control signal, performing a second processing on the first audio signal to obtain a second audio signal, the second processing being used to adjust a frequency gain of the first audio signal; and performing an audio post-processing on the second audio signal.

Abstract: A control method. The control method includes determining whether a second electronic device is placed on a touch panel of a first electronic device, the touch panel including a first electrode layer, the second electronic device including a second electrode layer, the second electrode layer being configured to form a charging capacitor unit with the first electrode layer; controlling the first electrode layer and the second electrode layer opposite to the first electrode layer to form the charging capacitor unit when it is determined that the second electronic device is placed on the touch panel; and controlling a first power module of the first electronic device to provide power to the first electrode layer to supply power to the second electronic device through the charging capacitor unit; or, controlling the first power module to receive power transmitted by the second electronic device through the charging capacitor unit.

Abstract: A display screen display parameter adjustment method. The method includes obtaining a trigger event of display parameters of a display screen, the display screen including a first display area and a second display area; if the trigger event satisfies a preset condition, determining that an adjustment mode of the display parameters of the display screen is a synchronous mode, and simultaneously adjusting the display parameters of the first display area and the second display area; and if the trigger event does not satisfy the preset condition, determining that the adjustment mode of the display parameters of the display screen is an asynchronous mode, and adjust the display parameters of the first display area and the second display area respectively.

Abstract: A weld quality inspection method, apparatus and system and an electronic device are disclosed. The weld quality inspection method provided by the embodiments of the disclosure includes: acquiring point cloud data of a target weldment, and converting the point cloud data into a height map; determining a weld region for characterizing a target weld from the height map; analyzing the weld region to obtain a feature parameter of the target weld; and obtaining a quality inspection result of the target weld according to the feature parameter, where the target weldment includes a base material, a welding part and the target weld formed by welding the welding part to the base material.

Abstract: A control method includes obtaining a first task content and, in response to detecting that a first display area outputs a second task content, mapping the first task content to a second display area for output. The first display area and the second display area are different display areas in a same display screen, or the first display area and the second display area are on different display screens and each include at least a partial display area of one of the different display screens.

Abstract: A display screen display parameter adjustment method. The method includes obtaining a trigger event of display parameters of a display screen, the display screen including a first display area and a second display area; if the trigger event satisfies a preset condition, determining that an adjustment mode of the display parameters of the display screen is a synchronous mode, and simultaneously adjusting the display parameters of the first display area and the second display area; and if the trigger event does not satisfy the preset condition, determining that the adjustment mode of the display parameters of the display screen is an asynchronous mode, and adjust the display parameters of the first display area and the second display area respectively.

Abstract: A processor includes a first processing unit, a second processing unit, a third processing unit, a system control unit, and a storage unit. The first processing unit is configured to obtain data transmitted to the processor and determine whether the data is to be processed by the first processing unit, the second processing unit, or the third processing unit. The second processing unit is configured to execute a neural network algorithm. The third processing unit is configured to perform a feature extraction algorithm on the data. The system control unit is configured to control power supply information of each of the first processing unit, the second processing unit, and the third processing unit. The storage unit is configured to store at least data processing algorithms performed by the first processing unit, the second processing unit, and the third processing unit.

Abstract: The present invention relates to an electrical connector, which has an insulation body, a shielding plate, a plurality of grounding terminals and conducting terminals accommodated in the insulation body. Each grounding terminal is formed by bending a linear wire and has an upper contacting portion, a bending portion extending from the upper contacting portion, and a lower contacting portion extending from the bending portion, wherein the upper contacting portion is parallel to the lower contacting portion. Therefore, the crosstalk between the upper-row signal terminals and the lower-row signal terminals is reduced, and the shielding effect is enhanced.

Abstract: The present invention relates to an electrical connector, which has an insulation body, a shielding plate, a plurality of grounding terminals and conducting terminals accommodated in the insulation body. Each grounding terminal is formed by bending a linear wire and has an upper contacting portion, a bending portion extending from the upper contacting portion, and a lower contacting portion extending from the bending portion, wherein the upper contacting portion is parallel to the lower contacting portion. Therefore, the crosstalk between the upper-row signal terminals and the lower-row signal terminals is reduced, and the shielding effect is enhanced.