Abstract: An imaging system includes a terminal device that includes an imaging sensor, and a head mounted display device that receives an image captured by the imaging sensor from the terminal device and displays the captured image. The imaging system includes at least one memory and at least one processor which function as: a detecting unit configured to detect the display device from the captured image; and a display control unit configured to control display of the captured image on the display device, based on a detection result of the display device using the detecting unit.

Abstract: An imaging system includes a terminal device that includes an imaging sensor, and a head mounted display device that receives an image captured by the imaging sensor from the terminal device and displays the captured image. The imaging system includes at least one memory and at least one processor which function as: a detecting unit configured to detect the display device from the captured image; and a display control unit configured to control display of the captured image on the display device, based on a detection result of the display device using the detecting unit.

Abstract: The present invention can generate lines whose spatial correlation is high from a Bayer array imaging element, and can raise the coding efficiency of a captured image thereby. A read out controller reads two lines of pixel data from the Bayer array imaging element, generates two new lines by sorting, in accordance with a rule set in advance, pixel data included in the two lines that are read out, and outputs the result; a first encoder that inputs and encodes one of the two new lines obtained by the read out controller; and a second encoder that inputs and encodes the other of the two new lines obtained by the read out controller. Then, the read out controller generates a line configured by pixels of a single color component as at least one of the two new lines.

Abstract: An image capturing apparatus includes an image sensor having a plurality of pixels and being capable of outputting a plurality of image signals read out using different methods for individually reading out the signals of the plurality of pixels and correction signals for correcting the plurality of image signals, a processing unit for processing the correction signals so as to handle the reading methods for the plurality of image signals, and a correction unit for correcting the plurality of image signals using the correction signals processed by the processing unit.

Abstract: An image capturing apparatus includes an image sensor having a plurality of pixels and being capable of outputting a plurality of image signals read out using different methods for individually reading out the signals of the plurality of pixels and correction signals for correcting the plurality of image signals, a processing unit for processing the correction signals so as to handle the reading methods for the plurality of image signals, and a correction unit for correcting the plurality of image signals using the correction signals processed by the processing unit.

Abstract: The present invention can generate lines whose spatial correlation is high from a Bayer array imaging element, and can raise the coding efficiency of a captured image thereby. A read out controller reads two lines of pixel data from the Bayer array imaging element, generates two new lines by sorting, in accordance with a rule set in advance, pixel data included in the two lines that are read out, and outputs the result; a first encoder that inputs and encodes one of the two new lines obtained by the read out controller; and a second encoder that inputs and encodes the other of the two new lines obtained by the read out controller. Then, the read out controller generates a line configured by pixels of a single color component as at least one of the two new lines.

Abstract: An image capturing apparatus includes an image sensor having a plurality of pixels and being capable of outputting a plurality of image signals read out using different methods for individually reading out the signals of the plurality of pixels and correction signals for correcting the plurality of image signals, a processing unit for processing the correction signals so as to handle the reading methods for the plurality of image signals, and a correction unit for correcting the plurality of image signals using the correction signals processed by the processing unit.

Abstract: An image capturing apparatus includes an image sensor having a plurality of pixels and being capable of outputting a plurality of image signals read out using different methods for individually reading out the signals of the plurality of pixels and correction signals for correcting the plurality of image signals, a processing unit for processing the correction signals so as to handle the reading methods for the plurality of image signals, and a correction unit for correcting the plurality of image signals using the correction signals processed by the processing unit.

Abstract: An image pickup apparatus that is capable of controlling the time elapsing from when a shooting scene is determined to when switching between shooting mode is performed, thus making it possible to take images desired by a user. A motion of the image pickup apparatus is detected, and based on the detection result, a motion of the image pickup apparatus is determined. A shooting scene is determined based on a video signal obtained from the image pickup unit. A shooting mode is determined based on the result of scene determination. Based on the result of determination, the ease of switching to the determined shooting mode is changed.

Abstract: An image pickup apparatus capable of highly efficiently realizing optical corrections of various aberrations while reducing the load imposed on a central processing unit (CPU). A plurality of optical correction units apply optical correction processes to a plurality of aberrations in an optical system. A time period assigned for the optical correction processes and a time period required for the optical correction processes are acquired. Priorities of the plurality of optical correction units are decided if the time period required for the optical correction processes is longer than the time period assigned for the optical correction processes. The plurality of optical correction units execute the optical correction processes according to the decided priorities.

Abstract: An image processing apparatus includes a change unit configured to change a driving state of an image sensor for capturing an image signal in response to an operation for changing the driving state of the image sensor, and a flicker correction unit configured to correct an image signal based on a flicker component detected from image signals of a frame captured a predetermined number of frames before the frame of the image signal to be corrected, wherein the flicker correction unit is configured to change the predetermined number when the driving state of the image sensor is changed by the change unit.

Abstract: An image pickup apparatus capable of highly efficiently realizing optical corrections of various aberrations while reducing the load imposed on a central processing unit (CPU). A plurality of optical correction units apply optical correction processes to a plurality of aberrations in an optical system. A time period assigned for the optical correction processes and a time period required for the optical correction processes are acquired. Priorities of the plurality of optical correction units are decided if the time period required for the optical correction processes is longer than the time period assigned for the optical correction processes. The plurality of optical correction units execute the optical correction processes according to the decided priorities.

Abstract: An image pickup apparatus that is capable of controlling the time elapsing from when a shooting scene is determined to when switching between shooting mode is performed, thus making it possible to take images desired by a user. A motion of the image pickup apparatus is detected, and based on the detection result, a motion of the image pickup apparatus is determined. A shooting scene is determined based on a video signal obtained from the image pickup unit. A shooting mode is determined based on the result of scene determination. Based on the result of determination, the ease of switching to the determined shooting mode is changed.

Abstract: An image sensing apparatus comprises: a pixel array including a first pixel group and a second pixel group; a first readout unit which reads out a first signal from the first pixel group in a readout period which remains constant regardless of the operation modes; a second readout unit which reads out a second signal from the second pixel group in a readout period selected in accordance with a switched operation mode between the operation modes; and a control unit which controls a performance of generating an evaluation value by using the first signal of the first pixel group, and which controls at least one of image displaying performance and image recording performance by using the second signal of the second pixel group.

Abstract: An image sensing apparatus comprises: a pixel array including a first pixel group and a second pixel group; a first readout unit which reads out a first signal from the first pixel group in a readout period which remains constant regardless of the operation modes; a second readout unit which reads out a second signal from the second pixel group in a readout period selected in accordance with a switched operation mode between the operation modes; and a control unit which controls a performance of generating an evaluation value by using the first signal of the first pixel group, and which controls at least one of image displaying performance and image recording performance by using the second signal of the second pixel group.

Abstract: An image processing apparatus includes a change unit configured to change a driving state of an image sensor for capturing an image signal in response to an operation for changing the driving state of the image sensor, and a flicker correction unit configured to correct an image signal based on a flicker component detected from image signals of a frame captured a predetermined number of frames before the frame of the image signal to be corrected, wherein the flicker correction unit is configured to change the predetermined number when the driving state of the image sensor is changed by the change unit.