A method and device are provided for positioning a mounted camera. The device includes a holding element that secures the mounted camera to the device, a wireless linkage at which remote attitude commands representing attitude changes of a remote driver are received, a local controller that interprets the remote attitude commands and generates local attitude commands that move the camera to mimic an orientation of the remote driver, and an attitude sensing element that senses a local attitude of the device. The attitude sensing element includes a gyro, an accelerometer, or a magnetometer, and jitter present in the remote attitude commands is removed and not passed on to the local attitude commands.

Embodiments relate to the field of intelligent vehicles, and may be applied to vehicle to everything. A method for controlling an operation of a vehicle-mounted camera based on computer vision, a device, and a system are provided. The method is implemented by a mobile device, and the method includes: communicatively connecting a vehicle control apparatus, where the vehicle control apparatus includes at least one vehicle-mounted camera; configuring at least one virtual camera based on camera information, where the at least one virtual camera corresponds to the at least one vehicle-mounted camera in a one-to-one manner; and enabling the at least one virtual camera to obtain a video signal shot by a vehicle-mounted camera corresponding to the at least one virtual camera. A passenger can control an operation on the vehicle-mounted camera, which brings good user experience. The method may be applied to an artificial intelligence device.

A camera system includes an administrator and a series of camera nodes which includes an audio microphone for also including sound in the video data file. The administrator includes a computer server, a wireless transmitter/receiver (transceiver), and machine learning (ML) chips. Each camera node includes a video capturing device or camera, a wireless transmitter/receiver (transceiver), a plurality of ML chips, and a GPS sensor. The ML chips are capable of receiving data in the form of a video file and processing the data to determine if the data includes “actionable” data. The ML chip makes certain inferences from the captured video data. The camera nodes are wirelessly linkable to each other. The communication between the several camera nodes form a “mesh network” wherein the several camera nodes may transmit data to each other, thus propagating the camera nodes with the mesh network with common data, rules, or inferences.

Disclosed is a gamification system for overlaying user-controlled graphical targeting elements over a real-time video feed of an instrument being inspected, and providing interactive controls for firing virtual weapons or other graphical indicators to designate and/or record the presence of contaminants, defects, and/or other issues at specific locations within or on the instrument. The system may receive and present images of the instrument under inspection in a graphical user interface (“GUI”). The system may receive user input that tags a particular region of a particular image with an issue identifier, and may generate a visualization that is presented in conjunction with the particular image in the GUI in response to receiving the input. The visualization corresponds to firing of a virtual weapon and other gaming visuals associated with tagging the particular region of the particular image with the issue identifier.

Disclosed is an electronic gimbal with camera and mounting configuration. The gimbal can include an inertial measurement unit which can sense the orientation of the camera and three electronic motors which can manipulate the orientation of the camera. The gimbal can be removably coupled to a variety of mount platforms, such as an aerial vehicle, a handheld grip, or a rotating platform. Moreover, a camera can be removably coupled to the gimbal and can be held in a removable camera frame. Also disclosed is a system for allowing the platform, to which the gimbal is mounted, to control settings of the camera or to trigger actions on the camera, such as taking a picture, or initiating the recording of a video. The gimbal can also provide a connection between the camera and the mount platform, such that the mount platform receives images and video content from the camera.

A package intended to contain at least one object includes a box; a lid which can adopt, with the box, a closed package configuration or an open package configuration, a device for detecting the closed or open package configurations, at least one image sensor relating to said object(s), at least one electronic display device accessible from the exterior of the package, a computing unit, intended to receive images from the image sensor and to transmit to the electronic display device instructions to display said images, means for triggering the image sensor, and

the triggering means are presented on an external facade of the package, the computing unit is connected to the detection device and is parameterized to authorize a display of the images from the image sensor in the closed package configuration and, conversely, prohibit the display in the open package configuration.

Disclosed is a transmission element imaging device capturing an image of a transmission element that transmits a signal, including a reception element group including a plurality of reception elements each receiving the signal transmitted from the transmission element, a direction detection unit detecting a direction of the transmission element on a basis of the signal received by each of the plurality of reception elements, a camera whose relative positional relation with the reception element group is determined and which captures an image in the direction of the transmission element, and an image processing unit generating an image in which a marker indicating the direction of the transmission element is added to the image captured by the camera.

Disclosed is a transmission element imaging device capturing an image of a transmission element that transmits a signal, including a reception element group including a plurality of reception elements each receiving the signal transmitted from the transmission element, a direction detection unit detecting a direction of the transmission element on a basis of the signal received by each of the plurality of reception elements, a camera whose relative positional relation with the reception element group is determined and which captures an image in the direction of the transmission element, and an image processing unit generating an image in which a marker indicating the direction of the transmission element is added to the image captured by the camera.

A process includes receiving a target quality value, receiving a measured quality value, receiving a source quality value, and sending a source control instruction. The source control instruction is based at least in part on the target quality value, the measured quality value, and the source quality value. The target quality value, the measured quality value, the source quality value, and the source control instruction are communicated via the communication port. The measured quality value is generated by an inspection device configured to inspect a sample. The source quality value is associated with a quality level of a first group of samples. The target quality value indicates a desired quality value of an output group of samples. The source control instruction causes a source selecting device to select one of a plurality of groups of samples, each group having identified quality characteristics.

A system that includes a detection device, an imaging device, and a control device is disclosed. The detection device may generate proximity data relating to a proximity of an undercarriage of a rail vehicle, and the imaging device may capture one or more thermal images of the undercarriage. The control device may receive a first thermal image and a second thermal image of the undercarriage. The first thermal image may be captured using a first integration time, and the second thermal image may be captured using a second integration time. The control device may determine composite thermal data associated with the undercarriage. The composite thermal data may include information mapping a first range of thermal data and mapping a second range of thermal data to one or more components of the undercarriage. The control device may cause an action to be performed in connection with the composite thermal data.