6results about How to "Minimize damage" patented technology

The present invention relates to a top cap assembly and a button-type secondary battery including the same, and more particularly, to a top cap assembly in which a stepped portion between a base plate and an electrode terminal is removed, and a welding point ascends to improve welding quality and assembly yield of the battery and minimize damage of an electrode assembly due to welding heat, thereby securing quality and stability of the battery, and a button-type secondary battery including the same. A button-type secondary battery having a diameter greater than a height thereof includes a can body which has an opened upper end and in which an accommodation space is formed, an electrode assembly accommodated in the accommodation space of the can body, and a top cap assembly configured to cover the upper end of the can body and coupled to the can body, wherein the top cap assembly includes a base plate having a flat plate shape and bent upward from a circumferential area thereof, an electrode terminal having a flat plate shape so as to be seated on an upper portion of the base plate, wherein the electrode terminal comprises a protrusion protruding downward from a central area thereof, and an insulating member provided between the base plate and the electrode terminal.

A method for safely operating and controlling an electric motor in an electric vehicle is provided. The method includes the steps of: obtaining first battery power information provided by a BMS when the vehicle is running; measuring second battery power information according to motor torque depending on the driver's pedal opening in each driving condition; comparing the first battery power information with the second battery power information with each other; determining whether the motor is abnormal based on the comparison result; and when the motor is determined to be abnormal, performing control of gradually limiting the motor output.

According to one aspect of this disclosure, a display device includes: a substrate, the substrate including a display area, a first non-display area surrounding the display area, a curved area extending from the first non-display area, and a second non-display area extending from the curved area; a first planarization layer disposed on the substrate in the first non-display area, the curved area, and the second non-display area; a plurality of connecting lines located on the first planarization layer in the first non-display area, the curved area, and the second non-display area; and a second planarization layer located on the plurality of connecting lines in the first non-display area, the curved area, and the second non-display area, and in cross-section, the plurality of connecting lines are configured to be closer to the substrate in the central portion of the curved area than at the boundary between the first non-display area or the second non-display area and the curved area.

A gate-drive controller for a power semiconductor device includes a master control unit (MCU) and one or more comparators that compare the output signal of the power semiconductor device to a reference value generated by the MCU. The MCU, in response to a turn-off trigger signal, generates a first intermediate drive signal for the power semiconductor device and generates a second intermediate drive signal, different from the first drive signal, when a DSAT signal indicates that the power semiconductor device is experiencing de-saturation. The MCU generates a final drive signal for the power semiconductor when the output signal of the one or more comparators indicates that the output signal of the power semiconductor device has changed relative to the reference value. The controller may also include a timer that causes the drive signals to change in predetermined intervals when the one or more comparators do not indicate a change.

Disclosed is a door lock device. The door lock device of the disclosure can include a main body, a solenoid disposed inside the main body and including a bobbin having a coil wound therearound and a plunger which is elongated such that a portion thereof is exposed to the outside and slides in the inside of the bobbin by being magnetized by the coil, a first slider movably disposed in the sliding direction of the plunger and into which the portion of the plunger exposed to the outside of the solenoid has been inserted, and a first elastic member having one end supported by the plunger and the other end supported by the first slider.

The present disclosure relates to an induction heating type cooktop. The induction heating type cooktop includes a housing, a cover plate connected to an upper end of the housing and provided with an upper plate portion on which an object to be heated is disposed, a thin layer coated on the upper plate portion, a thermal insulator disposed below the thin layer, a work coil disposed inside the housing, a work coil cooling fan configured to blow air toward the work coil, and a bracket provided with a cooling passage in which air blown by the work coil cooling fan passes through the work coil and is discharged.