Abstract: This application discloses a piezoelectric sensing unit, a piezoelectric microphone, and a terminal. The piezoelectric sensing unit includes a base, an auxiliary layer, a central film, a piezoelectric film, and a plurality of cantilevers. The base has a cavity extending in a first direction, the cavity forms a polygonal opening on a first surface of the base, and the polygonal opening has a first side and a second side that are adjacent to each other. The auxiliary layer is formed on the first surface of the base, the auxiliary layer includes a first auxiliary part, and the first auxiliary part is located in a region that is on the first surface and that is adjacent to the first side. The cantilevers are one-to-one connected to sides of the polygonal opening in one-to-one correspondence.

Abstract: An electronic device may include a camera module which may include a piezoelectric motor. The piezoelectric motor includes a vibration exciter and a resonator. The resonator includes a main body portion and a push portion, the main body portion includes a first central axis, the main body portion is distributed on two sides of the first central axis, and the vibration exciter is fastened to the main body portion. The push portion is connected to the main body portion and distributed on the two sides of the first central axis, the push portion is of an asymmetrical structure with respect to the first central axis, and the push portion is configured to push, when excited by the vibration exciter, a driven member to move.

Abstract: An electronic device includes a sensor and a control circuit. The control circuit is configured to output a drive signal (Sd) to a first port of the sensor in a first time interval and output a high-impedance state or a floating state in a second time interval. The Sd is used to drive the sensor to vibrate along with an outer housing. The sensor is configured to detect the vibration of the outer housing and output a vibration sensing signal (Sz) by using the first port. The Sz is a vibration coda wave response signal output by the sensor after the sensor receives the Sd.

Abstract: This application relates to a drive assembly, a motor, and a terminal. The drive assembly includes a stator and a rotor. The stator includes an excitation part, a vibration part, a first fixed part, and a pushing part. The vibration part is connected to the excitation part. The first fixed part is connected to the vibration part, and the vibration part is located between the excitation part and the first fixed part along a first direction L. The pushing part is connected to the vibration part and the rotor. The excitation part is capable of vibrating, and the excitation part is capable of driving the vibration part to act. Under limiting by the first fixed part, the vibration part is capable of vibrating at least along the first direction L and a second direction W.

Abstract: A touch button component with a vibration sensor component to implement a touch button attached to an inner surface of a housing, where a drive system drives the housing to vibrate, and vibration of the housing is suppressed when the housing is subjected to a touch force. When it is identified that a case in which the vibration of the housing is suppressed meets a force habit of a user, a trigger signal is output.

Abstract: An electronic device includes a sensor and a control circuit. The control circuit is configured to output a drive signal (Sd) to a first port of the sensor in a first time interval and output a high-impedance state or a floating state in a second time interval. The Sd is used to drive the sensor to vibrate along with an outer housing. The sensor is configured to detect the vibration of the outer housing and output a vibration sensing signal (Sz) by using the first port. The Sz is a vibration coda wave response signal output by the sensor after the sensor receives the Sd.

Abstract: A control circuit and an electronic device are provided, to reduce power consumption of the electronic device. The electronic device includes a sensor and a control circuit. The sensor is configured to: detect a force or a deformation of a shell, and output a force sensing signal Sf. The control circuit is configured to: receive the force sensing signal Sf and determine, based on the force sensing signal Sf, whether to send a drive signal Sd to the sensor. The drive signal Sd is used to drive the sensor to drive the shell to vibrate. The sensor is further configured to: detect vibration of the shell and output a vibration sensing signal Sz. The control circuit is further configured to: receive the vibration sensing signal Sz, and determine, based on the vibration sensing signal Sz, whether to trigger an event.

Abstract: A touch button component with a vibration sensor component to implement a touch button attached to an inner surface of a housing, where a drive system drives the housing to vibrate, and vibration of the housing is suppressed when the housing is subjected to a touch force. When it is identified that a case in which the vibration of the housing is suppressed meets a force habit of a user, a trigger signal is output.