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 thermographic camera control method includes periodically correcting a display temperature of a temperature distribution image at a first interval; and acquiring the temperature distribution image by periodically imaging a temperature measurement target by the thermographic camera at a second interval. The acquiring the temperature distribution image includes imaging the temperature measurement target after elapse of a standby time. The standby time is shorter than the second interval and starts from the correcting the display temperature.

According to some embodiments, a processor reads a force from a touch control. Hysteretic behavior is provided through at least three different actuation states and at least four different force threshold values, allowing user-friendly control of disparate actions through one touch interface with applications in volume control, photography, and user authentication. Other possibilities are shown and discussed.

A camera system includes: a first camera and a second camera; a camera adaptor box; and a camera control unit.

A method includes providing a mission regarding image capturing to a user terminal having an image capture function, evaluating an image transmitted from the user terminal in response to the mission, and additionally providing a new mission regarding image capturing to the user terminal in a case where a level of achievement of the mission is determined to satisfy a criterion based on the evaluation.

An image processing method includes an electronic device that outputs a first frame rate when the electronic device detects that ambient light brightness in a current environment is less than or equal to a first preset light brightness threshold; collects first video data based on the first frame rate, where the first video data includes a plurality of frames of images; and performs frame interpolation on the frames of images to obtain and store second video data, where a frame rate of the second video data is greater than the first frame rate.

An information processor according to the present technology includes a presentation processing section configured to perform a process to present a list of objects recognized in an object recognition process of a captured image to a user, and a tracking processing section configured to set a tracking range of a subject corresponding to an object selected by the user from the list presented by the presentation processing section and perform a tracking process of the subject on the basis of the set tracking range.

The present invention relates to a new universal control interface for cameras and other audio-visual recording/using instruments, and more specifically a multi-axis visual interface for simultaneous display and control of aperture (Av), shutter speed (Tv), ISO, and/or other parameters like exposure value (EV). The invention relates to either a triangular, rectangle or clover shape interface where the parameters are visually represented on one of the axis, side or branch of the interface and where the user instead of altering the parameters, will provide intention such as (a) depth-of field, (b) motion blur, (c) granularity, or the composite (d) exposure. The invention further describes how in some cases, one or more of these parameters can be locked or not available based on the technology used for the delay and control interface.

The image processing device according to the invention includes: a first acquisition unit to acquire a captured image; a display control unit to display a setting screen to allow to user to set an image processing area, which is an area where predetermine image processing is performed, in the image acquired by the first acquisition unit on a display device; and a second acquisition unit configured to acquire movable range information indicating a movable range of a working device, operations of which are controlled on the basis of a result of the predetermined image processing. The display control unit controls the display of the setting screen so as to cause the user to identify a range in which the working device is not able to operate in the image, on the basis of the movable range information acquired by the second acquisition unit.

An image capturing device includes a first controller operable to control image capturing; an operation section including a switch; a detector operable to detect a change to an image capturing mode and to send a signal representing the change; a second controller operable to monitor and process the sent signal, the second controller having a power consumption less than that of the first controller; and a power supply operable to supply power to the first controller, the second controller, and a functional section of the device. When the second controller receives the signal sent from the detecting section in a power saving state in which power is supplied from the power supply to the second controller, the power saving state is changed to a power supplying state capable of image capturing by supplying power from the power supply to portions of the device including the first controller.