Abstract: There is provided an imaging apparatus including an image sensor and a processor, in which the processor acquires distance data related to distances between the imaging apparatus and a plurality of subjects within an imaging area imaged by the image sensor, generates boundary data indicating a region of a boundary subject that is present at a distance of a boundary portion of a depth of field among the plurality of subjects, based on the distance data, generates moving image data including the boundary data based on image data obtained by imaging with the image sensor, and outputs the moving image data.

Abstract: An image processing device includes at least one processor, in which in a case in which, for at least one image of a real image visually recognized by a user through a transmission unit of a glasses-type information display device or a projected image projected onto the transmission unit and visually recognized by the user, a visibility change unit that changes visibility by the user changes visibility of the real image, the processor generates an image simulating the real image after the change in visibility from a captured image obtained by imaging a real world with a camera based on at least one of information indicating the change in visibility, model information on the glasses-type information display device, or model information on the camera.

Abstract: A control device includes at least one processor, in which the processor acquires a region of interest of a user, performs, for at least one image of a real image visually recognized by the user through a transmission unit or a projected image projected onto the transmission unit and visually recognized by the user, a control to change visibility by the user based on a relationship between at least one of the real image or the projected image and the region of interest, by a visibility change unit that changes the visibility, and records the projected image in which the visibility is not changed by the visibility change unit.

Abstract: An imaging apparatus includes an image sensor and a processor. The processor performs demosaicing processing on captured image data obtained by being imaged by the image sensor, acquires distance data representing a distance between the imaging apparatus and a subject for each of a plurality of pixels included in a captured image represented based on the captured image data, specifies a correction target pixel from among the plurality of pixels based on the distance data, and performs correction processing of correcting a false signal generated by the demosaicing processing, on correction target pixel data of the correction target pixel.

Abstract: There is provided an imaging apparatus including an image sensor, and a processor, in which the processor acquires first distance data related to a distance between the imaging apparatus and a first object included in a moving image, which is shown by moving image data obtained by being imaged by the image sensor, and second distance data related to a distance between the imaging apparatus and a second object included in the moving image, and controls a focus position according to whether or not a first object position in a depth direction based on the first distance data and a second object position in the depth direction based on the second distance data are within a depth of field.

Abstract: There is provided an imaging apparatus including an image sensor, and a processor, in which the processor is configured to detect a focus region within an imaging area based on imaging data obtained by the image sensor, generate moving image data based on the imaging data obtained by the image sensor, generate information image data representing information related to the moving image data, output the moving image data and the information image data, which is associated with a window region in an image represented by the moving image data, and control a position of the window region according to the focus region.

Abstract: There is provided an imaging apparatus including an image sensor, and a processor, in which the processor is configured to acquire information related to distances at a plurality of positions within an imaging area of the image sensor, generate moving image data represented with a vertical axis and a lateral axis, based on imaging data obtained by the image sensor, generate distance image data in which a first axis corresponds to the vertical axis or the lateral axis and a second axis represents the information related to the distance, and output the moving image data and the distance image data.

Abstract: A control device includes a processor that controls a glasses-type display device to control projection of a projection image, and the device includes a transmission unit that provides a real image to an eye of a user and a projection unit. The processor is configured to acquire a first size of a pupil of the eye of the user, which is obtained in a case in which the projection unit projects the projection image with a first brightness, with regard to the size of the pupil of the eye of the user, acquires a second size of the pupil, which is obtained in a case in which the projection unit projects the projection image with a second brightness higher than the first brightness, and controls a brightness of the projection image projected onto the transmission unit according to a result of comparison between the first size and the second size.

Abstract: An imaging apparatus includes an imaging optical system, an imaging element, and a processor, in which, in a first focus mode, the processor outputs moving image data captured by the imaging element via the imaging optical system to a display destination, detects an in-focus region in an image represented by the moving image data based on the moving image data, senses, in a case where a focus operation is performed, a termination of the focus operation based on a time related to the focus operation, sets, in a case where the termination of the focus operation is sensed, a subject present in the in-focus region as a tracking target to continuously perform tracking processing and auto focus control, and terminates, in a case where the focus operation is performed again after the tracking processing and the auto focus control are started, the tracking processing and the auto focus control.

Abstract: Provided are an imaging apparatus, an image processing method, and an image processing program capable of improving operability in a case in which manual focus adjustment is performed. Processing of extracting a plurality of subjects from moving image data obtained by imaging is performed, first moving image data in which a region including a specific subject among the plurality of subjects is magnified is output to a display destination, and, in a case in which a change has occurred in any of the plurality of subjects in the moving image data, second moving image data in which a region of each of the plurality of subjects is magnified is output to the display destination instead of the first moving image data, and then, in a case in which an instruction to select the subject is given, third moving image data in which a region including a selected subject is magnified is output to the display destination instead of the second moving image data.

Abstract: Provided are an imaging device, an imaging method, and an imaging program capable of easily capturing a moving image under an imaging condition desired by a user. In one aspect of the present invention, an imaging device includes an imaging unit and a processor. The processor sets a first imaging parameter applied to moving image data captured by the imaging unit, records first moving image data captured based on the first imaging parameter on a recording device before a first operation by a user of the imaging device is received, sets a second imaging parameter applied to the moving image data in a case where the first operation is received, and records the second moving image data captured based on the second imaging parameter on the recording device in a case where a second operation by the user is received after the reception of the first operation.

Abstract: Provided are an imaging device, an imaging instruction method, and an imaging instruction program capable of efficiently changing an imaging condition during capturing of a moving image. In one aspect of the present invention, an imaging device is an imaging device including an imaging unit that captures a moving image and a processor.

Abstract: An image processing apparatus includes a processor (16) and a memory, in which the processor (16) performs processing of generating first moving image data for recording based on input imaging data, processing of setting a specific subject region including a specific subject in an imaging region represented by the imaging data or the first moving image data, processing of evaluating a focus state based on the imaging data or the first moving image data, processing of generating second moving image data for display in which a focus state of the specific subject region is visually recognizable based on data of the specific subject region, an evaluation result of the focus state, and the first moving image data, and processing of outputting the second moving image data to a display destination.

Abstract: Provided are an image processing device, an image processing method, an image processing program, and an imaging device capable of generating two pieces of moving image data subjected to different pieces of image processing. A processor is configured to perform processing of calculating a first image processing parameter from first moving image data obtained by imaging, processing of generating second moving image data from the first moving image data based on the first image processing parameter, processing of storing the first moving image data in the memory, and processing of generating third moving image data from the first moving image data stored in the memory based on a second image processing parameter calculated from the first moving image data with a lapse of a time (T) after the first moving image data starts to be stored in the memory.

Abstract: One embodiment according to the technology of the present disclosure provides an imaging device, an imaging method, and a program that allow a user to easily visually discriminate a difference between setting conditions by displaying video image data indicating the difference. An imaging device (1) is an imaging device 1 including a connection unit (109) that is connectable to an external device (3), and a processor (107).

Abstract: A transitory storage unit transitorily stores pixel data output from an imaging unit. A development processing unit outputs video data obtained by performing development processing including demosaicing processing on the pixel data stored in the transitory storage unit. An output control unit switches between a first recording mode in which only the video data out of the video data and the pixel data is used as recording data and a second recording mode in which the video data and the pixel data are used as the recording data. In addition, the output control unit controls the imaging unit to perform imaging with different exposure values between the first recording mode and the second recording mode.

Abstract: An example of an information processing system gives an in-game virtual reward associated with a first designated game stage to a user on condition that a result of a first game played by the user satisfies the reward giving condition. The information processing system gives the in-game virtual reward associated with a second designated game stage to the user on condition that a result of a second game played by the user satisfies the reward giving condition. Regardless of whether an in-game virtual reward is given based on the result of the first game played by the user or the result of the second game played by the user, the information processing system changes an in-game element in the first game mode from a state where it is not permitted to be played by the user to a state where it is permitted to be played by the user.

Abstract: An image processing apparatus, an imaging apparatus, an image processing method, and a non-transitory computer readable medium for storing an image processing program capable of controlling the brightness of a desired color in a captured image are provided. A brightness and color difference conversion processing unit generates a reference first brightness signal “Y1” and color difference signals “Cb and Cr” from color signals “R1, G1, and B1” of three primary colors after gamma conversion. A second brightness signal generation unit generates a second brightness signal “Y2” in which a value of a brightness signal corresponding to a target color is decreased with respect to the first brightness signal “Y1” from the color signals “R1, G1, and B1”. The brightness of the desired target color can be controlled according to the reference first brightness signal “Y1” and the second brightness signal “Y2”.

Abstract: An in-game event occurring based on a user's input is detected in a game of each time, where the game is performed a plurality of times. A first parameter is increased or decreased based on the in-game event occurring in the game of each time, the first parameter being reset for the game of each time, to calculate a score in the game of each time. A second parameter is increased or decreased based on a result of the game determined based on an assessment parameter different from a final score, the second parameter being used in the game of the plurality of times without being reset for the game of each time.

Abstract: An InP substrate, being a group III-V compound semiconductor substrate, that includes, on a main surface thereof, 0.22 particles/cm2 that have a particle diameter of at least 0.19 ?m or 20 particles/cm2 that have a particle diameter of 0.079 ?m. An InP substrate with an epitaxial layer, being a group III-V compound semiconductor substrate with an epitaxial layer, includes: the InP substrate and an epitaxial layer arranged upon the main surface of the InP substrate; and, upon the main surface thereof when the thickness of the epitaxial layer is 0.3 ?m, no more than 10 LPD that have a circle-equivalent diameter of at least 0.24 ?m, per cm2, or no more than 30 LPD that have a circle-equivalent diameter of at least 0.136 ?m, per cm2. As a result, a group III-V compound semiconductor substrate capable of reducing defects in an epitaxial layer grown upon a main surface thereof and a group III-V compound semiconductor substrate with an epitaxial layer are provided.