Abstract: The present invention discloses a battery cell detection apparatus. The battery cell detection apparatus includes a feeding manipulator, a discharging manipulator, a first transition manipulator, a second transition manipulator, a first transmission structure, a second transmission structure, a third transmission structure, a first lifting structure, a second lifting structure, a first detection structure, a second detection structure, and a third detection structure. According to the present invention, visual detection can be performed on a surface of a battery cell, and outer side surfaces and inner side surfaces of a first tab and a second tab. By using visual detection to substitute artificial identification, high detection efficiency can be achieved, and the occurrence of false detection can be greatly reduced, so that the quality of battery cell products can be effectively enhanced.

Abstract: A gimbal system includes a gimbal configured to support an imaging assembly, one or more processors, and a storage device storing program instructions that, when being executed by the one or more processors, cause the one or more processors to, in response to an image re-shooting instruction, obtain a target angle of the gimbal based on a reference shooting trajectory, adjust an angle of the gimbal to the target angle to allow the imaging assembly to capture a current image frame, and adjust the angle of the gimbal to a desired angle based on the current image frame to allow the imaging assembly to perform image re-shooting.

Abstract: The present disclosure provides a gimbal adjustment method. The method includes obtaining a reference image frame sequence and a reference shooting trajectory formed by a movement of a mobile platform when shooting the reference image frame sequence, the reference image frame sequence including two or more reference image frames, the mobile platform including a gimbal and an imaging assembly; estimating a shooting angle based on the reference shooting trajectory, and adjusting the gimbal based on an estimated shooting angle during an image re-shooting; obtaining a current image frame; and determining an amount of adjustment control of the gimbal based on the current image frame and the reference image frame sequence, and adjusting the gimbal based on the amount of adjustment control.

Abstract: The present invention discloses a cell photographing and conveying apparatus, including a cell feeding workstation, a detection workstation, a manipulator and an image acquisition device. The manipulator transfers a cell from the cell feeding workstation to the detection workstation. The image acquisition device includes ultraviolet lamps, illumination lamps, and cameras, where the ultraviolet lamps are used for emitting ultraviolet light to the detection workstation. By means of the cell photographing and conveying apparatus, a relatively complete appearance image of the cell can be acquired, thus ensuring detection accuracy.

Abstract: The present invention discloses a battery cell detection apparatus. The battery cell detection apparatus includes a feeding manipulator, a discharging manipulator, a first transition manipulator, a second transition manipulator, a first transmission structure, a second transmission structure, a third transmission structure, a first lifting structure, a second lifting structure, a first detection structure, a second detection structure, and a third detection structure. According to the present invention, visual detection can be performed on a surface of a battery cell, and outer side surfaces and inner side surfaces of a first tab and a second tab. By using visual detection to substitute artificial identification, high detection efficiency can be achieved, and the occurrence of false detection can be greatly reduced, so that the quality of battery cell products can be effectively enhanced.

Abstract: An electrode sheet turning mechanism includes a housing, a conveyor belt, a driver, and a stripper. The housing has a suction cavity, and forms an arc-shaped guide surface. A material feeding region and a material discharging region are formed on the arc-shaped guide surface, which is further provided with first suction holes. Second suction holes run through the conveyor belt. The conveyor belt is wound on the arc-shaped guide surface, and seals the first suction holes. The driver is for driving the conveyor belt to move. The stripper is for extending to the position between the conveyor belt and the electrode sheet. In the present utility model, the electrode sheet can be automatically turned.

Abstract: A method for determining a physical state of a movable object includes determining an estimated physical state based on first sensing data obtained by a first sensing system of the movable object, during a time duration in which second sensing data from a second sensing system is unavailable or is not updated; in response to determining that the second sensing data from the second sensing system becomes available or is updated, determining an observed physical state of the movable object based on the second sensing data; and based on a deviation between the observed physical state and the estimated physical state of the movable object, determining whether to update the physical state of the movable object based on the observed physical state. The first and second sensing systems have different sampling frequencies. The deviation is indicative of a validity of the sensing data of the second sensing system.

Abstract: A method includes obtaining a spatial configuration of a plurality of imaging devices relative to one another and to a movable object. The imaging devices are coupled to the movable object and comprise a first imaging device configured to operate in a multi-ocular mode and a second imaging device configured to operate in a monocular mode. The method further includes determining at least one of a distance of the movable object to an object or surface lying within a field-of-view of at least one of the imaging devices, a disparity between matched points in stereoscopic images acquired by the first imaging device, or an environment in which the plurality of imaging devices are operated. The distance is determined based in part on the spatial configuration. The method also includes selecting either the first imaging device or the second imaging device to acquire image data based on the determination.

Abstract: Embodiments of the present disclosure provide an image processing method applied in an unmanned aerial vehicle (UAV), the UAV including an imaging device in two or more directions. The method includes obtaining an image to be processed in each of the two or more directions; determining a first direction in the two or more directions and obtaining a first direction reference value based on the image to be processed in each of the two or more directions, the first direction reference value being used to determine whether to update key reference frames corresponding to the two or more directions respectively; and updating the key reference frames corresponding to the two or more directions respectively if the first direction reference value meets a preset condition.

Abstract: A motion estimation method and a mobile device are provided. The method includes: detecting whether a scene in which a mobile device is currently located is a dark scene or a textureless scene; when the scene is a dark scene or a textureless scene, obtaining a first depth map of the scene by using a distance measurement module in the mobile device; determining a vertical distance between the mobile device and the ground at a current moment based on the first depth map; and determining a moving speed of the mobile device from a previous moment to the current moment along a vertical direction based on a vertical distance between the mobile device and the ground at the previous moment and the vertical distance between the mobile device and the ground at the current moment. Therefore, accuracy of motion estimation in a dark or textureless scene can be improved.

Abstract: The present invention discloses a cell photographing and conveying apparatus, including a cell feeding workstation, a detection workstation, a manipulator and an image acquisition device. The manipulator transfers a cell from the cell feeding workstation to the detection workstation. The image acquisition device includes ultraviolet lamps, illumination lamps, and cameras, where the ultraviolet lamps are used for emitting ultraviolet light to the detection workstation. By means of the cell photographing and conveying apparatus, a relatively complete appearance image of the cell can be acquired, thus ensuring detection accuracy.

Abstract: The present utility model discloses an electrode sheet turning mechanism, including a housing, a conveyor belt, a driving mechanism, and a stripping member. The housing has a suction cavity, and forms an arc-shaped guide surface. A material feeding region and a material discharging region are formed on the arc-shaped guide surface, which is further provided with first suction holes. Second suction holes run through the conveyor belt. The conveyor belt is wound on the arc-shaped guide surface, and seals the first suction holes. The driving mechanism is for driving the conveyor belt to move. The stripping member is for extending to the position between the conveyor belt and the electrode sheet. In the present utility model, the electrode sheet can be automatically turned.

Abstract: A method includes obtaining a spatial configuration of a plurality of imaging devices relative to one another and to a movable object. The imaging devices are coupled to the movable object and comprise a first imaging device configured to operate in a multi-ocular mode and a second imaging device configured to operate in a monocular mode. The method further includes determining at least one of a distance of the movable object to an object or surface lying within a field-of-view of at least one of the imaging devices, a disparity between matched points in stereoscopic images acquired by the first imaging device, or an environment in which the plurality of imaging devices are operated. The distance is determined based in part on the spatial configuration. The method also includes selecting either the first imaging device or the second imaging device to acquire image data based on the determination.

Abstract: A playing device and a play method are provided. The playing device includes a playing module configured to play a first media stream currently being received; a first monitoring module configured to monitor whether the first media stream contains a content a user does not want to watch and generate a monitor result; and a first controlling module configured to control the playing module to play a second media stream in response to the monitor result indicating that the first media stream contains the content the user does not want to watch, the second media stream being different from the first media stream and containing a content the user wants to watch.

Abstract: A playing device and a play method are provided. The playing device includes a playing module configured to play a first media stream currently being received; a first monitoring module configured to monitor whether the first media stream contains a content a user does not want to watch and generate a monitor result; and a first controlling module configured to control the playing module to play a second media stream in response to the monitor result indicating that the first media stream contains the content the user does not want to watch, the second media stream being different from the first media stream and containing a content the user wants to watch.