Abstract: An unmanned aerial vehicle includes a fuselage and a power supply assembly arranged at the fuselage. The power supply assembly includes a polyhedron mounting bracket arranged at the fuselage, a power supply device arranged at the fuselage, and at least two functional circuits arranged separately on different outer surfaces of the mounting bracket and electrically coupled to each other and to the power supply device.

Abstract: A flip device includes a bracket including a first limit member, a positioning and connection assembly including a second limit member, and a rotation-shaft rocker arm rotatably connected to the bracket through the positioning and connection assembly. The first limit member and the second limit member are configured to mate with each other to enable the rotation-shaft rocker arm and the bracket to be fixed relative to each other at a preset angle.

Abstract: An apparatus includes a camera unit and a circuit board unit connected to the camera unit and disposed at a periphery of the camera unit. The circuit board unit includes a plurality of rigid boards and at least one flexible board connecting the plurality of rigid boards. The plurality of rigid boards are disposed on different side portions of the camera unit by bending the at least one flexible board.

Abstract: A sensor assembly for an unmanned aerial vehicle (UAV) includes a binocular sensor. The binocular sensor includes two vision sensors. The two vision sensors are located at a same vertical plane. The two vision sensors are arranged one above another at an interval.

Abstract: An indication device of a battery includes a compression member and a plurality of light sources. The plurality of light sources are arranged in a ring shape to surround the compression member and configured to indicate power of the battery.

Abstract: A battery assembly includes a battery body, a housing, a switch assembly, an output terminal, and a snap clip assembly. The housing includes an accommodation chamber. The battery body is mounted in the accommodation chamber. The switch assembly is fixed at the housing and configured to generate an in-position signal. The output terminal is arranged at the housing and configured to output power of the battery body and the in-position signal. The snap clip assembly is arranged at the housing and configured to cause the switch assembly to be in a first status when no external force is applied to the snap clip assembly, the in-position signal being at a first level in the first status, and when an external force is applied to the snap clip assembly, cause the switch assembly to be in a second status, the in-position signal being at a second level in the second status.

Abstract: A gimbal handle includes an enclosure including an accommodation space, a main control board accommodated in the accommodation space, and an electrical contact member provided at the main control board and electrically connected to the main control board. The electrical contact member penetrates the enclosure to expose to an outside of the enclosure. The electrical contact member is configured to be electrically connected to an adapter.

Abstract: The present disclosure describes ultrasound imaging systems and methods, which may enable the automatic identification of an image plane in a pre-operative volume corresponding to a real-time image of a moving region of interest. An example method includes receiving real-time ultrasound image data from a probe associated with a position-tracking sensor, generating real-time images based on the real-time ultrasound data and deriving a motion model from the real-time ultrasound image data. The method may further include automatically identifying an image plane in a pre-operative data set to correspond to the real-time ultrasound image by correcting for motion-induced misalignment between the real-time data and the pre-operative data.

Abstract: A fastening assembly includes a fastening member and an operating member movably sheathed on the fastening member. The fastening member includes a threaded part and a mating part connected to the threaded part. The operating member includes a snap-fitting part corresponding to the mating part.

Abstract: A hand-held gimbal includes a handle portion and a gimbal photographing device mounted on the handle portion. A display screen is disposed at the handle portion and configured to display at least one of content captured by the gimbal photographing device or a photographing parameter of the gimbal photographing device.

Abstract: A system for image alignment includes an alignment mechanism (132) configured to permit user alignment of images. A first imaging modality (110) is configured to concurrently provide images in two imaging planes using an imaging mechanism (134) associated with the alignment mechanism (132). An image processing module (126) is configured to display first images collected with the first imaging modality and second images collected with a second imaging modality (130) to permit user alignment using the alignment mechanism between the first images and the second images in multiple planes. A registration module (115) is stored in memory and configured to register the first images with corresponding second images in the multiple planes when alignment in the multiple planes has been achieved.

Abstract: A remote controller comprising a shifter lever structure, a controller, and a signal emission device electrically coupled to the controller. The shifter lever structure includes a base, a press key movably connected to the base, a shifter lever arranged surrounding the press key and movably connected to the base, and a sensor coupled to the press key and the shifter lever. The sensor is configured to obtain moving state information about the press key and the shifter lever. The sensor includes at least one of an angle sensor, an angular displacement sensor, an angular velocity sensor, an angular acceleration sensor, a torque sensor, a distance sensor, a linear displacement sensor, a linear velocity sensor, a linear acceleration sensor, or a pressure sensor. The controller is configured to receive the moving state information from the sensor and emit a control signal corresponding to the information via the signal emission device.

Abstract: The present invention relates to a medical imaging apparatus. The apparatus comprises an ultrasound acquisition unit including an ultrasound probe for acquiring ultrasound image data of a patient. An image data interface is provided for receiving 3D medical image data of the patient and a position determining unit for determining a position of the ultrasound probe. A calibration unit determines a transfer function between the ultrasound image data and the 3D medical image data at a plurality of positions (C) of the ultrasound probe and provides a corresponding plurality of calibrated transfer functions and calibration positions. A computation unit synchronizes the ultrasound image data and the 3D medical image data on the basis of a position of the ultrasound probe and the plurality of calibrated transfer functions, said computation unit is further adapted to weight the calibrated transfer functions on the basis of a position of the ultrasound probe.

Abstract: An apparatus includes a camera unit including an optical lens, a circuit board unit connected to the camera unit and disposed at a periphery of the camera unit, and a casing including a first housing body and a second housing body attachable to the first housing body. The first housing body and the second housing body are configured to enclose a receiving space to receive the camera unit and the circuit board unit, and jointly define a front opening that intersects with an optical axis of the optical lens.

Abstract: An unmanned aerial vehicle includes a central body and a plurality of arms extendable from the central body. Each of the plurality of arms is configured to support one or more propulsion units. Each of the plurality of arms is configured to transform between (1) a flight configuration in which the arm is extending away from the central body and (2) a compact configuration in which the arm is folded against the central body. At least one of the plurality of arms is configured to rotate about a first rotational axis and at least a portion of the at least one of the plurality of arms is configured to rotate about a second rotational axis not parallel to the first rotational axis.

Abstract: A method for simulating a particle transport may include recording transport paths of inputted particles and determining an uncertainty of each of lattice cells based on the transport paths of each batch of the inputted particles, a lattice cell being a qualified lattice cell if an uncertainty of the lattice cell does not exceed a first threshold; determining a standard-reaching rate of lattice cells in a region of interest (ROI), the ROI including at least one lattice cell, the standard-reaching rate of lattice cells in the ROI being equal to a ratio of the number of qualified lattice cells to a total number of lattice cells in the ROI; and if the standard-reaching rate of lattice cells in the ROI exceeds a second threshold, stopping inputting particles, and outputting the transport paths of the inputted particles.

Abstract: The present invention relates to a medical imaging apparatus (10). The apparatus comprises an ultrasound acquisition unit including an ultrasound probe (14) for acquiring ultrasound image data of a patient (12). An image data interface (18) is provided for receiving 3D medical image data of the patient and a position determining unit (28) for determining a position of the ultrasound probe. A calibration unit (24) determines a transfer function between the ultrasound image data and the 3D medical image data at a plurality of positions (C) of the ultrasound probe and provides a corresponding plurality of calibrated transfer functions and calibration positions. A computation unit (26) synchronizes the ultrasound image data and the 3D medical image data on the basis of a position of the ultrasound probe and the plurality of calibrated transfer functions, said computation unit is further adapted to weight the calibrated transfer functions on the basis of a position of the ultrasound probe.

Abstract: The present disclosure provides an Unmanned Ariel Vehicle (UAV). The UAV includes a fuselage including a housing, a core control board disposed in the housing, and a battery, the housing including a battery compartment, and the battery being disposed in the battery compartment; an arm disposed on the fuselage; and a power assembly disposed on the arm. The core control board is disposed above the battery, a payload receiving cavity is disposed at a front lower end of the housing, a rear-bottom view component is disposed at a rear end of the housing and electrically connected to the core control board, and the battery compartment is disposed at a middle position under the housing.

Abstract: An unmanned aerial vehicle (UAV) includes a vehicle body and an arm assembly. The vehicle body includes a distribution board. The arm assembly includes an arm body, a lampshade, and an electric speed control (ESC) light control board. The arm body includes an accommodation space. The lampshade is mounted at the arm body. The ESC light control board is arranged in the accommodation space and electrically connected to the distribution board through a wire. The ESC light control board includes an illuminator corresponding to the lampshade and is configured to emit light out of the arm assembly through the lampshade.

Abstract: A remote controller includes a handheld device and a support structure detachably coupled to the handheld device. The handheld device includes a quick release base. The support structure includes a connecting shaft, and a locking member sleeved on the connecting shaft and rotatable around the connecting shaft. The locking member is configured to be rotatably switched between a locked state of being engaged with the quick release base by thread and an unlocked state of being separated from the quick release base.