Abstract: A charging control method includes: monitoring a real-time temperature of the battery during charging a battery with a first real-time charging current; reducing the first real-time charging current to a second real-time charging current at a specified current reduction rate, when the real-time temperature of the battery is greater than a first temperature threshold, the second real-time charging current being a real-time charging current corresponding to that the real-time temperature of the battery is less than the first temperature threshold; and charging the battery according to the second real-time charging current. As such, the temperature rise problem during high-current high-power fast charging can be alleviated, and excessive fluctuations due to instantaneous current adjustment can be prevented from affecting the charging rate thereby improving user experience.

Abstract: Predetermined information indicating an application scene in charging electronic equipment is determined. A target charging mode adapted to the application scene is selected from alternative charging modes based on the predetermined information. Each of the alternative charging modes corresponds to a distinct charging parameter. The electronic equipment is charged based on the target charging mode.

Abstract: A battery assembly, and an electronic device incorporating a battery assembly, includes at least one cell, a battery protection plate and a heat dissipation assembly. The cell includes a cell body and a tab protruding from the cell body. The battery protection plate connected with the tab. The heat dissipation assembly connected with the tab and the battery protection plate, and the heat dissipation assembly includes a phase-change material for absorbing heat.

Abstract: Predetermined information indicating an application scene in charging electronic equipment is determined. A target charging mode adapted to the application scene is selected from alternative charging modes based on the predetermined information. Each of the alternative charging modes corresponds to a distinct charging parameter. The electronic equipment is charged based on the target charging mode.

Abstract: A charging control method includes: monitoring a real-time temperature of the battery during charging a battery with a first real-time charging current; reducing the first real-time charging current to a second real-time charging current at a specified current reduction rate, when the real-time temperature of the battery is greater than a first temperature threshold, the second real-time charging current being a real-time charging current corresponding to that the real-time temperature of the battery is less than the first temperature threshold; and charging the battery according to the second real-time charging current. As such, the temperature rise problem during high-current high-power fast charging can be alleviated, and excessive fluctuations due to instantaneous current adjustment can be prevented from affecting the charging rate thereby improving user experience.

Abstract: An easy-to-remove member includes a first surface and a second surface. The first surface includes a weak adhesive portion that is bonded with a bottom surface of a battery, and a strong adhesive portion that is bonded with a top surface of the battery. A separating structure is arranged at a boundary between the weak adhesive portion and the strong adhesive portion and is to separate the easy-to-remove member into a first body and a second body. The first body corresponds to the weak adhesive portion. The second body corresponds to the strong adhesive portion. At least a part of the second surface of the first body is bonded with an inner wall of a battery cabin and the second surface of the second body is attached to the inner wall of the battery cabin.

Abstract: An easy-to-remove member includes a first surface and a second surface. The first surface includes a weak adhesive portion that is bonded with a bottom surface of a battery, and a strong adhesive portion that is bonded with a top surface of the battery. A separating structure is arranged at a boundary between the weak adhesive portion and the strong adhesive portion and is to separate the easy-to-remove member into a first body and a second body. The first body corresponds to the weak adhesive portion. The second body corresponds to the strong adhesive portion. At least a part of the second surface of the first body is bonded with an inner wall of a battery cabin and the second surface of the second body is attached to the inner wall of the battery cabin.