Abstract: An image capturing apparatus is provided. The apparatus comprises an imaging lens, an image sensor, and a plurality of microlenses. The apparatus also comprises an image processing unit configured to generate a reconstruction image at a predetermined refocus plane by performing refocus processing on the image data that was output from the image sensor, and determine whether or not a subject appears in the reconstruction image. The recording unit of the apparatus records the image data that was output from the image sensor and record information regarding the subject that was determined to appear by the image processing unit as auxiliary information in association with the image data.

Abstract: Drive unit that consists of two or more strings that are with one end attached to a shaft of a driving motor, and with the other end directly or indirectly coupled to an image capturing device, which is supported by means that allow rotation is disclosed. The twisting strings produce a pulling force on the ends of the strings, which generates a motion of the image capturing device. The invented drive unit does not use gears, belts, pulleys or the like, which reduces the weight, lowers the generated noise, and reduces the parts costs. The invented drive unit including the control unit achieves wide range of motion performances ranging from precise positioning to fast motion, including performance equivalent to a human eye.

Abstract: A digital photographing apparatus includes a focus lens, a focus detection unit that detects focus in a contrast auto focusing (AF) method by moving the focus lens, and a controller that calculates a velocity of a subject from a first focus detection result and a second focus detection result in a continuous shooting operation. The controller restricts a U-turn driving for correcting backlash of the focus lens when the calculated velocity of the subject is equal to or greater than a predetermined value. An AF initiating location and a final correction operation are adaptively adjusted based on the velocity of the subject in each process of the continuous shooting, thereby improving an AF performance and the continuous photographing speed.

Abstract: In some cases, conventional digital zoom techniques can lead to poor quality images. Disclosed are systems and methods for improving the quality of images generated by digital zoom. For example, in some embodiments, a parallel structure is utilized where an image is passed through a sharpener and a 2D directional upscaler at the same time. Upscaling operations are then performed on the sharpened image. The upscaled sharpened image is added to the output of the 2D directional upscaler to produce an enhanced image.

Abstract: The present invention generates first developed image data by correcting image data with use of a first white balance correction value corresponding to a first light source, generates second developed image data by correcting the image data with use of a second white balance correction value corresponding to a second light source, calculates a color evaluation value of each of blocks by adding and averaging color evaluation values of pixels in the image data for each of the divided blocks, calculates a combining ratio based on a difference between the calculated color evaluation value of each of the blocks and a color evaluation value of white under the second light source, and combines the first developed image data and the second developed image data according to the calculated combining ratio.

Abstract: An information processing device includes a position acquisition unit to acquire position information periodically. A generating unit generates log data by associating each of the position information with date and time information indicating a date and time at which the position information was acquired. A control unit controls processing for establishing a connection with an image capturing device, and transmitting position information included in the log data to the image capturing device, to add the position information to images recorded on the image capturing device. The control unit performs control so that position information acquired after a predetermined timing, out of position information acquired during connection with the image capturing device, is not transmitted to the image capturing device.

Abstract: A device includes: an image acquisition device acquiring a taken image in which a subject is imaged; a smoothing device generating a smoothed image by smoothing the taken image; a noise extraction device extracting a difference noise component from a difference between the taken image and the smoothed image; a noise addition device adding the difference noise component to the smoothed taken image; a map acquisition device acquiring a blurring strength map that represents a distribution of blurring strengths for the taken image; and an image combining device combining the taken image with the smoothed image on the basis of the blurring strength map, and generating an output image.

Abstract: An image pickup apparatus 100 includes an image pickup element 101 including a plurality of image pickup pixels that perform a photoelectric conversion for an image formed by a light beam from an image pickup optical system and a plurality of focus detection pixels that perform a photoelectric conversion for an image formed by a divided light beam of the light beam from the image pickup optical system, and a DSP 103 configured to perform a shading correction for a pixel signal from the image pickup element 101, the image pickup element 101 generates a first pixel signal by adding signals from the plurality of image pickup pixels, and generates a second pixel signal without adding a signal from the focus detection pixel, and the DSP 103 performs the shading correction for the first pixel signal and the second pixel signal using correction data different from each other.

Abstract: An image display apparatus which displays an image, and selectively reads out one of a RAW image and a first developed image obtained by performing a developing process and a compression process for the RAW image, as a candidate image to be displayed following a currently displayed image, from a storage medium storing the RAW image and the first developed image, in accordance with the currently displayed image The apparatus also performs a developing process for the RAW image with higher image quality than the first developed image, performs a decompression process for the developed image, stores the candidate image which is processed by the development or the decompression so as to be displayed, and controls to display the stored candidate image on a display unit by switching from the currently displayed image to the candidate image, in response to an instruction to switch the displayed image.

Abstract: An image pickup apparatus includes a shake detecting unit configured to detect a shake of the image pickup apparatus; and a first optical correcting unit and a second optical correcting unit configured to correct optically an image shake by using a shake signal output from the shake detecting unit, wherein the first optical correcting unit is used to correct optically the image shake based on frequency components lower than predetermined frequency components extracted from the shake signal, and wherein the second optical correcting unit is used to correct optically the image shake based on frequency components higher than the predetermined frequency components extracted from the shake signal.

Abstract: An image capturing apparatus includes: a system selector configured to select either one of a focus control of a contrast system in which a wobbling motion is performed for detection and a focus control of a different system that is different from the focus control of the contrast system; and a controller configured to set a first wobbling amount for the focus control of the different system to be smaller than a second wobbling amount for the focus control of the contrast system.

Abstract: A solid-state imaging device including, a first semiconductor region of the first conduction type, a photoelectric conversion part having a second semiconductor region of the second conduction type formed in the region separated by the isolation dielectric region of the first semiconductor region, pixel transistors formed in the first semiconductor region, a floating diffusion region of the second conduction type which is formed in the region separated by the isolation dielectric region of the first semiconductor region, and an electrode formed on the first semiconductor region existing between the floating diffusion region and the isolation dielectric region and is given a prescribed bias voltage.

Abstract: An inner focus lens system comprising a first lens unit and subsequent lens units, wherein the first lens unit: is fixed with respect to an image surface in focusing; and includes a first positive lens element located closest to the object side and a second positive lens element, the subsequent lens units include only a first focusing lens unit located closest to the object side and a second focusing lens unit, at least one of the first focusing lens unit and the second focusing lens unit is composed of two or less lens elements, and the subsequent lens units include an image blur compensating lens unit.

Abstract: A camera system is provided that provides a smooth and centered zoom, even at high levels of magnification. The camera system corrects for misalignment between the optical axis of a lens and center of an image sensor. As a result of the misalignment, the center of an image will move during a zoom movement. The current camera system corrects for the misalignment as the zoom movement occurs. The correction is matched to the speed of the zoom in order to provide a fluid zoom movement.

Abstract: While presenting on a display apparatus videos of high picture quality obtained from portable video processing apparatuses such as a camera and a cellular, it is possible to communicate with the Internet and/or a home network. A display apparatus includes a first radio communication unit capable of receiving video information by radio from an external video processing apparatus, a second radio communication unit capable of connecting by radio to a network, and a control unit for controlling assignment of connection by radio transmission for each of the first and second radio communication units. The control unit assigns connection of the first radio communication unit with higher priority and controls the assignment of the transmission rate such that the transmission rate between the first radio communication unit and the external video processing apparatus is more than that between the second radio communication unit and the network.

Abstract: A focus adjustment apparatus comprising a focus detection unit to detect image phase difference information using a light flux having passed through a photographic optical system including a focus lens, and a focus adjustment unit converts first image phase difference information detected by the focus detection unit into a defocus amount using a conversion coefficient and causes the focus detection unit to detect second image phase difference information after having moved the focus lens according to the defocus amount, and corrects the conversion coefficient according to the second image phase difference information and causes a storage unit to store the corrected conversion coefficient.

Abstract: A driving method for an image pickup apparatus that includes a plurality of pixels each including a photoelectric conversion portion includes performing photoelectric conversion in each of the plurality of photoelectric conversion portions during a period between first time and second time, generating a plurality of first signals, each being a signal deriving from electric charge generated through the photoelectric conversion in the photoelectric conversion portion, which is a plurality of signals to be generated for each of the plurality of pixels, and generating a plurality of second signals by performing moving average processing on the plurality of first signals.

Abstract: A camera system for a vehicle includes a body defining a cavity therein, and a camera including a lens. The camera is disposed in a deployed position such that the lens protrudes from the cavity. The camera system includes a debris region covering the lens and a duct disposed within the cavity. The duct defines a channel therein and has a first end spaced apart from the camera and a second end spaced apart from the first end. The duct is configured for directing an airstream through the channel from the first end to the debris region. A vehicle including the camera system is also disclosed.

Abstract: A solid-state imaging device has a plurality of imaging-purpose pixels and a plurality of focus detection-purpose pixels. Each of the imaging-purpose pixels are provided with a first lower electrode, a photoelectric conversion film formed on the first lower electrode, and an upper electrode formed on the photoelectric conversion film. Each of the focus detection-purpose pixels is provided with a second lower electrode, the photoelectric conversion film formed on the second lower electrode, and the upper electrode formed on the photoelectric conversion film. The area of the second lower electrode is smaller than the area of the first lower electrodes. The second lower electrode is provided on a position deviating from a pixel center of a corresponding focus detection-pixel, and two second lower electrodes corresponding to two focus detection purpose pixels included in the plurality of focus detection purpose pixels is arranged in mutually opposite directions.

Abstract: The invention concerns a method of processing pixel values comprising: during a first read phase, generating a first digital value as a function of pixel values by controlling, based on first and second control signals and a first set of increment rates, the rate that a first counter (220-i) is incremented; and during a second read phase, generating a second digital value as a function of pixel values by controlling, based on first and second control signals and a second set of increment rates, the rate that said first counter (220-i) is incremented, the first and second sets of increment rates each defining an increment rate for each of a plurality of states of the first and second control signals, wherein said first set of increment rates is different from said second set of increment rates.