An electronic device is provided with a detecting unit for detecting a face and an eye from an image; an obtaining unit for obtaining a position designated by a user on a display screen on which the image is displayed; a setting unit for setting a left region for selecting a left eye of a face specified by the position designated and a right region for selecting a right eye of the face; and a selecting unit for selecting an eye region of a corresponding eye when the position designated is present in the left region or the right region. The setting unit extends a region for selecting, out of eyes of the specified face, an eye closer to an edge of the specified face when a predetermined condition is satisfied.

The invention provides a positioning system that autonomously and continuously positions interchangeable camera devices on the subject as they move allowing the camera device to leverage its native functionality without modification or connectivity to the MTDS. The embodiments of the MTDS are configured to attach and align varying size of digital cameras, video cameras, mobile devices with a camera, or smart assistants with an embedded camera, action camera, webcam or laptop with embedded camera to the stand. The MTDS tracks the movements of the user during any video conference, photography or videography session. The MTDS includes a sensor, separate from the camera on the camera device, that sends the sensor data stream to a microcontroller in the stand and a machine learning co-processor detects the presence of a person. As the speaker or subject (user) moves, the MTDS tracks their movements and directs motors in the stand to pan or tilt the stand to orient the camera device's camera at the user. Through movement of the stand, the speaker or user stays centered in the camera frame. No data connections or software integrations are required to operate the MTDS.

An image processing apparatus and method are provided which quantifies sharpness of one or more areas in an image. The sharpness processing includes acquiring an image from an image capturing apparatus, obtaining an object information characterizing a position of an object within the captured image, and controlling, based on a sharpness of each of a plurality of regions identified within the captured image according to the object information, an unit such that a sharpness information representing a numeric value regarding a sharpness of the captured image is displayed with the captured image.

An electronic apparatus including at least a memory and at least one processor which function as a control unit configured to perform control to display a specific icon and set a first range at least partially overlapping with the specific icon as a touch sensitive region of the specific icon in a case where a positional relationship of the display unit with the housing is a first positional relationship, and to perform control to display the specific icon on a side close to the housing relative to a center of a display area in the display unit and set a second range wider than the first range on a side opposite to the housing, at least partially overlapping with the specific icon, as a touch sensitive region of the specific icon in a case where a positional relationship of the display unit with the housing is a second positional relationship.

An image processing apparatus comprises an acquisition unit that acquires image data, an estimation unit that detects a predetermined subject from the image data and estimates posture information of the detected subject, and a determination unit that, in a case where a plurality of subjects are detected by the estimation unit, determines a main subject from the plurality of subject using feature vector of each of the subjects obtained from the posture information.

An image sensor includes a pixel portion in which a plurality of unit pixels each having one micro lens and a plurality of photoelectric conversion portions are arrayed in a matrix, a signal readout portion that reads out signals accumulated in the photoelectric conversion portions and converts the read signals to digital signals, a signal processor that processes signals read out by the signal readout portion and has an image capture signal processor that performs signal processing for generating a captured image on signals read out by the signal readout portion and a focus detection signal processor that performs signal processing for focus detection on signals read out by the signal readout portion, and an output portion that outputs signals processed by the signal processor.

An imaging apparatus includes: an image sensor that captures a subject image via an optical system including a focus lens, to generate image data; a display that displays a moving image indicated by the image data; a user interface allowing to input user operation; and a controller that controls focusing operation using the focus lens, based on the user operation input to the user interface. The controller controls the display to display operation information together with the moving image, the operation information indicating a setting value related to a speed at which the focusing operation is executed, and responds to first operation via the user interface to adjust the setting value indicated by the operation information, and responds to second operation via the user interface to execute the focusing operation in accordance with the setting value indicated by the displayed operation information together with the moving image.

A control apparatus includes a first acquiring unit configured to acquire a hyperfocal length of a lens apparatus that is attachable to, detachable from, and communicable with an image pickup apparatus, using information acquired by communication between the lens apparatus and the image pickup apparatus, and a second acquiring unit configured to acquire a position of a focus lens in the lens apparatus according to the hyperfocal length.

The image pickup apparatus, a control method therefor, and a storage medium capable of maintaining detection accuracy of a line-of-sight position at the time of calibration even in a case where a focus controllable range changes due to a difference in a detachably mounted accessory. At a camera housing 1B, correction information about an individual difference of an eyeball is acquired by calibration based on a display position of an index in a finder thereof and a position of line-of-sight, of a user, detected by a line-of-sight detection circuit 201, the position of line-of-sight being poured into the index, and correction of the detected position of line-of-sight is performed using the correction information. Then, a position of line-of-sight, of the user, detected by the line-of-sight detection circuit 201, the line-of-sight position being poured into a through image is set to a focal frame. When one of the accessories is mounted thereon, a method for the calibration is changed according to a focus detection region acquired from the mounted accessory.

An image pickup apparatus attachable to and detachable from a lens apparatus includes an image sensor, an acquiring unit configured to acquire a hyperfocal length of the lens apparatus, and a setting unit configured to enable a user to change a diameter of a permissible circle of confusion for acquiring the hyperfocal length.