Abstract: An aerial vehicle includes a vehicle body coupled to one or more blades configured to provide lift to the aerial vehicle, an image device including a first housing containing an optical unit and a second housing containing a non-optical unit and not the optical unit, an apparatus connected to the vehicle body and configured to stabilize at least a portion of the imaging device. The optical unit includes a lens and a photosensor. The apparatus includes a frame assembly, an inertial measurement unit, and a motor assembly coupled to the frame assembly. The frame assembly is configured to support the optical unit without supporting the non-optical unit, and to permit rotation of the optical unit about a first rotational axis or a second rotational axis. The frame assembly includes a first frame member supporting the optical unit, and a second frame member bearing weight of the first frame member.

Abstract: A method includes in response to receiving an instruction for starting a panoramic mode, controlling an unmanned aerial vehicle (UAV) to hover at or near a predetermined location; while the UAV is hovering at or near the predetermined location, causing an image capturing device to capture a plurality of images by controlling a carrier that couples the image capturing device to the UAV to rotate the image capturing device about a first axis of the carrier; and stabilizing the image capturing device against motions with respect to a second axis or a third axis of the carrier while the image capturing device is rotating about the first axis of the carrier.

Abstract: A gimbal control method includes obtaining a working parameter of a gimbal, where the gimbal includes an axial arm and a motor configured to drive the axial arm to rotate to drive a photographing device mounted on the gimbal to move in one or more directions. The method further includes obtaining a working parameter of the gimbal when the gimbal is controlled by a remote controller; and in response to the measured working parameter being greater than the working parameter of the gimbal when the gimbal is controlled by the remote controller, controlling the motor to drive the axial arm to rotate to a target attitude.

Abstract: A gimbal includes a control device configured to receive an action instruction including a press action instruction and, based on the action instruction, generate a control instruction including a switch control instruction for switching operating modes of the gimbal, a controlling assembly configured to receive the control instruction and generate a performing instruction based on the control instruction for controlling an optical device, and a performing assembly configured to receive and implement the performing instruction. The performing assembly is operably connected to the controlling assembly and supported on a top end of a support arm of the control device. The performing assembly comprises a first rotation member, a second rotation member, and a carrying member connected one to another, and first and second motors for driving the second rotation member and the carrying member to rotate relative to the first and second rotation members, respectively.

Abstract: A method for controlling a gimbal configured to carry a load includes detecting a motion state of a motion of the gimbal or the load, comparing the motion state to a preset threshold to obtain a comparison result, and controlling the gimbal to maintain the load in an original posture based on the comparison result.

Abstract: A method includes receiving selection of a target within an image captured by an image sensor of a payload and displayed on a user interface of the payload, detecting a deviation of the target from an expected target state within the image, generating, based at least partly on the deviation, a payload control signal including a first angular velocity for rotating the payload about an axis of the carrier to reduce the deviation about the axis in a subsequent image, and generating a base support control signal including a second angular velocity for rotating the payload with respect to the axis. When the first and second angular velocities are received, the carrier is controlled to rotate the payload at a third angular velocity about the axis. The third angular velocity is the first angular velocity, the second angular velocity, or a combination of both.

Abstract: A method of stabilizing a payload fitted in a carrier includes providing a first carrier component of the carrier, supporting a second carrier component of the carrier using the first carrier component, and supporting a third carrier component of the carrier using the second carrier component. The first carrier component is configured to permit rotation of the payload about a pitch axis. The second carrier component is configured to permit rotation of the payload about a yaw axis. The third carrier component is configured to permit rotation of the payload about a roll axis and connects to the payload.

Abstract: A method for detecting a payload on a carrier configured to support the payload includes obtaining a obtaining at least one motion characteristic of the carrier. The at least one motion characteristic is indicative of a coupling state between the carrier and the payload. The method further includes assessing the coupling state between the carrier and the payload based on the at least one motion characteristic. Assessing the coupling state between the carrier and the payload includes at least one of assessing whether the payload is coupled to the carrier or assessing whether the payload is correctly mounted at the carrier.

Abstract: A gimbal photographing device includes a body including a supporting wall and a side wall adjacent to the supporting wall, a folding mechanism connected to the body and configured to rotate around a rotation axis, and a gimbal camera connected to the folding mechanism and having an expanded state and a folded state. In response to the folding mechanism driving the gimbal camera to rotate to the expanded state, at least a portion of the folding mechanism abuts against the supporting wall. In response to the folding mechanism driving the gimbal camera to rotate to the folded state, the gimbal camera fits to the side wall of the body.

Abstract: A gimbal load mounting assembly includes a first seating body, a second seating body configured to slidably connect with the first seating body, and a fastener. The first seating body is configured to connect with a gimbal frame and slide in a first direction. The second seating body is configured to mount a load and is slidable on the first seating body in a second direction. The fastener is configured to connect with the first seating body and to lock a mounting location of the first seating body relative to the gimbal frame and a mounting location of the second seating body relative to the first seating body.

Abstract: A method for controlling an image stabilization apparatus includes detecting a motion status of a handle of the image stabilization apparatus. A rotation of the handle is controlled by a rotary axis motor of the image stabilization apparatus. The method further includes controlling the rotary axis motor to stop rotating in response to the motion status of the handle being a free status in which the handle is not fixed and one portion of the image stabilization apparatus other than the handle is fixed.

Abstract: A gimbal for carrying an imaging device includes a support frame and a center of gravity adjusting unit. The center of gravity adjusting unit includes a transmission member and a coupling member. The center of gravity adjusting unit is coupled to the support frame through the coupling member. A motor is configured to enable the transmission member to drive a portion of the support frame to have a linear movement relative to the coupling member to adjust a center of gravity of the support frame.

Abstract: An unmanned aerial vehicle (UAV) includes a UAV body, and a stabilizing platform mounted on the UAV body and configured to stabilize a payload device. The stabilizing platform includes a frame assembly adapted to hold the payload device and a brushless motor coupled to the frame assembly. The brushless motor is configured to directly drive the frame assembly in response to one or more motor signals to allow the payload device to rotate around at least one of a pitch axis, a roll axis, or a yaw axis of the payload device. A brushless motor includes a rotor housing; a stator disposed within the rotor housing; and a linear Hall effect sensor. A posture of the payload device is controlled by adjusting a rotational angle of the brushless motor, and the rotational angle of the brushless motor is determined using the linear Hall effect sensor.

Abstract: A connecting apparatus includes a snap-fit member configured to be detachably coupled to a gimbal or an unmanned aerial vehicle (UAV) and including a body and an accommodation space in the body, a movable member arranged in the accommodation space and configured to rotate relative to the snap-fit member, and a connector fixed to the movable member and configured to electrically couple the UAV and a photographing device carried by the gimbal. The connector is in a to-be-connected status when the movable member is at a first position. The movable member and the snap-fit member are in a locked status when the movable member is at a second position.

Abstract: Disclosed is a holding device having a support base for holding an electric device and a driving member for driving the support base. Upon mounting the electronic device on the holding device, the holding device has at least two stable states, and the holding device stores a preset time duration for transitioning from the first stable state to the second stable state. The holding device further includes a control circuit, which, in response to a time during which the holding device transitions from the first stable state to the second stable state exceeds the preset time duration, controls the driving member to stop or reduce a power output.

Abstract: A method includes receiving one or more panoramic image processing parameters from a remote terminal, controlling a carrier to rotate an image capturing device about a first axis of the carrier while causing the image capturing device to capture a plurality of images based at least in part on the one or more panoramic image processing parameters, and stabilizing the image capturing device against motions with respect to a second axis or a third axis of the carrier while the image capturing device is rotating about the first axis of the carrier. The image capturing device is coupled to an unmanned aerial vehicle (UAV) via the carrier.

Abstract: A gimbal for carrying a load includes a first frame configured to be coupled with the load, and a second frame rotatably coupled with the first frame. At least one of the first frame or the second frame includes a connecting segment and a movable segment movably coupled with the connecting segment. The movable segment is movable relative to the connecting segment to cause the at least one of the first frame or the second frame to extend or retract. The at least one of the first frame or the second frame includes a locking part disposed on one of the connecting segment and the movable segment. The locking part is configured to abut against the connecting segment or disengage from the connecting segment for placing the movable segment in a locked state or a movable state.

Abstract: An unmanned aerial vehicle (UAV) includes a central body, one or more propulsion units configured to propel the UAV through the air, and a carrier supported by the central body. The carrier is configured to support and permit a payload to move relative to the central body. The carrier includes a guide coupled to the central body and a gimbal configured to couple a payload to the guide. The gimbal is further configured to flip the payload above the carrier when the payload is at a top end of the guide relative to the central body.

Abstract: A lens bracket assembly for supporting an imaging device. The imaging device includes a body and a lens connected to the body. The lens bracket assembly includes a mounting plate, a supporting plate configured for carrying the imaging device, and a bracket. The mounting plate includes a first surface and two inner sidewalls extended from two opposing ends of the first surface along a direction substantially perpendicular to the first surface. The two inner sidewalls provide first sliding slots. The supporting plate includes a first side and two outer sidewalls providing second sliding slots, and is slidably disposed on the mounting plate with the second sliding slots matching the first sliding slots at corresponding positions. The bracket is coupled to the first side of the supporting plate, and includes a shape that matches the lens of the imaging device.

Abstract: A power supply method includes detecting whether a battery is newly connected to an unused battery interface of an electronic device during operation of the electronic device. The power supply method also includes, based on detecting that the battery is newly connected to the unused battery interface, and determining that a capacity of the newly connected battery is greater than a capacity of a currently operating battery, controlling the newly connected battery to function as an operating battery to provide an electric power to the electronic device.