Abstract: A multi-eye interchangeable lens is disclosed. In one example, it includes a lens barrel, a movable unit, individual-eye lenses, and a light source. The movable unit is movable along an optical axis with respect to the lens barrel. The individual-eye lenses are integrally movable with the movable unit and are arranged such that emission positions of imaging lights emitted via the individual-eye lenses do not overlap with one another. The light source is configured to be movable along the optical axis integrally with the movable unit and the individual-eye lenses, and is arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the individual-eye lenses.

Abstract: A multi-eye interchangeable lens is disclosed. In one example, it includes a lens barrel, a movable unit, individual-eye lenses, and a light source. The movable unit is movable along an optical axis with respect to the lens barrel. The individual-eye lenses are integrally movable with the movable unit and are arranged such that emission positions of imaging lights emitted via the individual-eye lenses do not overlap with one another. The light source is movable along the optical axis integrally with the movable unit and the individual-eye lenses, and is arranged such that an emission position of a parallel light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses.

Abstract: The present disclosure relates to an information processing apparatus, an information processing method, and a program capable of performing a process for a desired depth value range of depth data. A maximum value and a minimum value of depth values of depth data corresponding to image data are set to thereby set a depth value range from the minimum value to the maximum value. A mask for the depth data is generated according to the depth value range thus set. For example, the present disclosure is applicable to an information processing apparatus, electronic equipment, an information processing method, a program, or the like.

Abstract: The present disclosure relates to an imaging device, an information processing method, and a program capable of more easily grasping parallax among a plurality of images viewed from different individual-view optical systems. Any one a plurality of images viewed from a plurality of individual-view optical systems having optical paths independent from one another is displayed while selectively and dynamically switching among the images. The present disclosure can be applied to, for example, an imaging device, an electronic device, an interchangeable lens or a camera system equipped with a plurality of individual-view lenses, an information processing method, a program, or the like.

Abstract: An imaging apparatus including: an image sensor unit; and a camera unit from which the image sensor unit is detachable, in which the image sensor unit includes at least an image sensor and a first storage unit in which first correction data are stored, the camera unit includes at least a control unit, and the control unit performs an update determination process for determining whether or not the first correction data stored in the first storage unit have been updated.

Abstract: A multi-eye interchangeable lens is disclosed. In one example, it includes a lens barrel, a movable unit, individual-eye lenses, and a light source. The movable unit is movable along an optical axis with respect to the lens barrel. The individual-eye lenses are integrally movable with the movable unit and are arranged such that emission positions of imaging lights emitted via the individual-eye lenses do not overlap with one another. The light source is movable along the optical axis integrally with the movable unit and the individual-eye lenses, and is arranged such that an emission position of a parallel light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses.

Abstract: A multi-eye interchangeable lens is disclosed. In one example, it includes a lens barrel, a movable unit, individual-eye lenses, and a light source. The movable unit is movable along an optical axis with respect to the lens barrel. The individual-eye lenses are integrally movable with the movable unit and are arranged such that emission positions of imaging lights emitted via the individual-eye lenses do not overlap with one another. The light source is configured to be movable along the optical axis integrally with the movable unit and the individual-eye lenses, and is arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the individual-eye lenses.

Abstract: An imaging apparatus including: an image sensor unit; and a camera unit from which the image sensor unit is detachable, in which the image sensor unit includes at least an image sensor and a first storage unit in which first correction data are stored, the camera unit includes at least a control unit, and the control unit performs an update determination process for determining whether or not the first correction data stored in the first storage unit have been updated.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: A control device includes: a determination unit determining which mode is designated in a single-eye imaging mode in which imaging is performed by using a single imaging unit obtaining an image signal by imaging an object by an imaging device and a compound-eye imaging mode in which imaging is performed by using plural imaging units; and a gain maximum value control unit changing a gain maximum value which is the maximum value of the gain of the image signal based on the determination result by the determination unit.

Abstract: A super-resolution image is generated from a sequence of low resolution images. In one embodiment, the image shift information is measured for each of the low resolution images using an image stabilization component of an imaging device. The shift information is used to generate the super-resolution image. In another embodiment, the blurs are calculated for each of the low resolution images and are used to generate the super-resolution image.

Abstract: An image processing device, method and computer program product cooperate to make adjustments in detection area for image adjustment processing to when displacement adjustments have been made to a first or second imaging area. A detection area setting device sets a first detection area within a first imaging area and sets a second detection area in a second imaging area after a displacement adjustment is applied to at least one of the first imaging area and the second imaging area. The first detection area is an area used in image adjustment processing.

Abstract: An imaging system generates a picture depth map from a pair of reduced resolution images. The system captures two full resolution images, receives image reduction image information and creates two reduced resolution images. The system computes a blur difference between the two reduced resolution images at different image locations. The system calculates the depth map based on the blur difference between the two reduced resolution images at different image locations.

Abstract: A two picture matching curve information is able to be used to determine precise object distance or relative object distance in a scene. Acquiring two images with different blur information in addition to the curve information enables a device to determine distance information of objects in a scene. The distance information is able to be used in image processing including generating a depth map which is then able to be used in many imaging applications.

Abstract: A control device includes: a determination unit determining which mode is designated in a single-eye imaging mode in which imaging is performed by using a single imaging unit obtaining an image signal by imaging an object by an imaging device and a compound-eye imaging mode in which imaging is performed by using plural imaging units; and a gain maximum value control unit changing a gain maximum value which is the maximum value of the gain of the image signal based on the determination result by the determination unit.

Abstract: A camera auto-focuses using computed blur differences between images of a three-dimensional scene. The camera computes the blur difference between two images of the scene acquired at two different picture numbers. The camera uses the computed blur difference to predict a third picture number, where the camera uses the third picture number to auto-focus a camera lens on the scene.