Disclosed herein are a camera configured to adjust a focus thereof on the basis of a rotating method and an object processing apparatus using the same. The camera according to one embodiment moves a mirror between a lens and a sensor forward and backward, moves one side end of the sensor without a mirror, or moves the sensor forward and backward using rotation of a cam connected to a rotating motor to adjust a focal length between the lens and the sensor and adjust a focus of the camera onto a moving object.

Systems and methods trigger an image acquisition of an object using motion data communicated from a motion controller on a network, the motion controller coupled to a motion drive. Based upon motion data from the motion controller, a virtual axis application is used to plan the movement of a virtual axis for a motion cycle, the virtual axis allowing an acquisition trigger rate to be calculated to follow movement of the object caused by the motion drive. Based on the calculated acquisition trigger rate, an acquisition trigger signal is generated for triggering the image acquisition of the object.

An image processing apparatus acquires first image content and a degree of fluctuation of a fluctuation element of the first image content, the fluctuation element being an element having fluctuation as a state variation, out of elements constituting an image. The apparatus acquires information indicating a shooting intent of a user, and generates second image content having a different degree of fluctuation of a fluctuation element of the image content from the first image content, using a trained learning model. The learning model generates the second image content in which the degree of fluctuation acquired from the first image content corresponds to the information indicating the shooting intent.

An image processing apparatus acquires first image content and a degree of fluctuation of a fluctuation element of the first image content, the fluctuation element being an element having fluctuation as a state variation, out of elements constituting an image. The apparatus acquires information indicating a shooting intent of a user, and generates second image content having a different degree of fluctuation of a fluctuation element of the image content from the first image content, using a trained learning model. The learning model generates the second image content in which the degree of fluctuation acquired from the first image content corresponds to the information indicating the shooting intent.

An electronic device is provided. The electronic device includes at least one lens, an image sensor, an optical image stabilization (OIS) module configured to move at least one of the image sensor or the at least one lens in relation to OIS, and an image processor electrically connected with the OIS module. The image processor is configured to control movement of the at least one lens in a specified direction by using the OIS module, and obtain a panning shot image of a moving subject while moving the at least one lens

An imaging apparatus includes a pan housing that is supported so as to be pan-rotatable about a pan-axis, a supporting arm of which a base end is supported by one end of the pan housing so as to be rotatable about a first tilt-axis which is spaced away from and perpendicular to the pan-axis, and a tilt housing which accommodates a camera, and of which one end side opposing the supporting arm is supported by a tip of the supporting arm so as to be rotatable about a second tilt-axis which extends in the same direction as the first tilt-axis extends.

An imaging apparatus includes a pan housing that is supported so as to be pan-rotatable about a pan-axis, a supporting arm of which a base end is supported by one end of the pan housing so as to be rotatable about a first tilt-axis which is spaced away from and perpendicular to the pan-axis, and a tilt housing which accommodates a camera, and of which one end side opposing the supporting arm is supported by a tip of the supporting arm so as to be rotatable about a second tilt-axis which extends in the same direction as the first tilt-axis extends.

An auto-tracking imaging apparatus according to a preferred aspect of the invention includes: an imaging optical system that is formed of a central optical system, which is a wide-angle optical system disposed on a common optical axis, and an annular optical system which is a telephoto optical system disposed on the common optical axis; a directional sensor that respectively pupil-divides rays incident through the wide-angle and telephoto optical systems so as to selectively receive the rays; a panning/tilting mechanism; an object detection section that detects a tracking target object on the basis of at least a wide-angle image in wide-angle and telephoto images acquired from the directional sensor by an image acquisition section; and a panning/tilting control section that controls the panning/tilting mechanism on the basis of information about a position of the object, which is detected by the object detection section, in the image.

A multi-channel tracking pattern is provided along with techniques and systems for performing motion capture using the multi-channel tracking pattern. The multi-channel tracking pattern includes a plurality of shapes having different colors on different portions of the pattern. The portions with the unique shapes and colors allow a motion capture system to track motion of an object bearing the pattern across a plurality of video frames.

In one aspect of the present invention, when reset of a camera is received, a pan motor and a tilt motor of a pan and tilt mechanism are rotated in a first preset rotation direction, and the pan and tilt mechanism is first moved to a pan reference position and a tilt reference position. Thereafter, the pan motor and the tilt motor are rotated in a second rotation direction opposite to the first rotation direction, and the pan and tilt mechanism is moved to an initial pan position and an initial tilt position. Using a movement of the pan and tilt mechanism to initial pan and tilt positions, detection of a subject for automatic tracking is performed, and if the subject is detected, then transition to an automatic tracking state is caused to occur.