Abstract: A buffered scene-based non-uniformity correction method includes receiving a plurality of frames of video image data from an image detector; determining relative movement of a current image frame with respect to a previous image frame and responsive to a determination of substantial movement, adding the current image frame to a buffer memory sized to store a predetermined number of video frames; averaging pixel values of the frames in the buffer to determine a mean (or weighted mean) value for each pixel of a reference image; determining correction terms for each pixel of the current image frame by determining the difference between the current image frame pixel values and the corresponding reference image pixels; and correcting the current image frame using the correction terms. A scene-based non-uniformity correction system is also disclosed.

Abstract: A white balancing detecting method, medium, and system. The white balancing method includes setting an illuminant detection region of an input image in accordance with an exposure integration time indicative of a collected amount of light when the image is taken, and detecting an illuminant by using data contained in the illuminant detection region in a color gamut of the image.

Abstract: An evaluation value for a pixel in an eye region in an image is computed, which is increased with increase in the redness of the pixel and with decrease in the luminance of the pixel. Furthermore, a color saturation value for the pixel included in the eye region is corrected with the use of a luminance value for a surrounding region around an eye and the evaluation value. In this case, the color saturation value is corrected such that the amount of correction is smaller in a case in which the luminance value is smaller even with the same evaluation value, thereby achieving improvement in the correction factor of and prevention of false corrections of a redeye region with a low color saturation and a low luminance.

Abstract: A method for capturing an image, suitable for an image capturing apparatus with a flash lamp, is provided. In the invention, a pre-flash image is captured when a pre-flash is fired by the flash lamp. An intensity of a main flash is estimated. Whether the pre-flash image is overexposed is determined for calculating an overexposure number. A brightness comparison data is looked up according to the overexposure number and a brightness target value, so as to reduce a photosensitivity. A raw image is captured according to the reduced photosensitivity when the main flash is fired by the flash lamp.

Abstract: This invention can reduce the circuit scale by synthesizing OSD data to be superposed on a picture of each resolution by using common OSD data. According to this invention, a video resolution converter converts an HD (High Definition) video signal into an SD (Standard Definition) video signal such as an NTSC or PAL video signal. A memory controller receives a sync signal identical to an SD picture obtained by frequency-dividing an HD video signal, and a sync signal based on an SD video signal, and reads out OSD data (4 bits per pixel) from the memory on the basis of these sync signals. The OSD data read out on the basis of the SD video signal is synthesized with the SD video signal by an SD_OSD_MIX unit, and then output. The OSD data read out on the basis of the SD sync signal synchronized with the HD is multiplied by an integer by an OSD resolution converter, synthesized with an HD video signal by an HD_OSD_MIX unit, and then output.

Abstract: Imaging apparatus (26) is provided for use with an image sensor (24). The apparatus includes a non-linear mapping circuit (42), which is configured to receive a raw stream of input pixel values generated by the image sensor and to perform a non-linear mapping of the input pixel values. to generate a mapped stream of mapped pixel values, and a linear convolution filter (44), which is arranged to filter the mapped stream of mapped pixel values to generate a filtered stream of filtered pixel values. Other embodiments are also described.

Abstract: Provided are a photographing profile learning apparatus and method of a digital imaging device for recording a personal life history. The photographing profile learning method learns a user's photographing patterns by recommending at least one previous picture consistent with a user's photographing tendencies, using a recommendation function and a user profile based on a user feedback value and a compensation value, receiving user feedback regarding the recommended previous picture, and updating the user profile and the recommendation function according to the user feedback. Therefore, since photographing settings are performed according to a user's tendency and conditions, it is possible to maintain consistency between a currently photographed picture and previously photographed pictures and systematically produce a visual diary.

Abstract: An image sensing apparatus that senses objects and processes image signals obtained from such image sensing includes a white balance correction means that performs white balance correction of the image signals using white balance correction values calculated based on a face area and on other areas contained in the image signals, and a CPU that changes the proportion of image signals of the face area used in calculating the white balance correction values when calculating the white balance correction values based on the image signals.

Abstract: An image pickup device is equipped with a function to a pickup still picture during a moving picture pickup operation with voices. After a moving picture pickup processing with voices is started (YES in S2), a moving picture recording processing and a voice recording processing are started (S14). Subsequently, when a shutter button is depressed halfway (YES in S16), the moving picture recording processing is switched to a processing to store substitute frames, which are a copy of frame data immediately preceding the half depression operation of the shutter button, instead of moving picture frames imaged in moving picture frame cycles (step S20), and a still picture pickup processing is performed. After the still picture pickup processing ends, the normal moving picture recording processing is resumed.

Abstract: This invention comprises a system and a method for inspecting the inside of delayed petroleum coking vessels to determine deformations, detect and determine the severity of other defects and visually observe the inside of the inspected vessel.

Abstract: An image-capturing device includes: a first image sensor equipped with first and second image-capturing pixels and first focus detection pixels, each of which receives one of light fluxes formed by splitting subject light having passed through an optical system, the first and the second image-capturing pixels generating first and second color signals respectively and the first focus detection pixels outputting focus detection signals indicating a state of focus detection pertaining to the optical system; and a second image sensor equipped with third image-capturing pixels and second focus detection pixels, each of which receives another light flux, the third image-capturing pixels generating third color signals and the second focus detection pixels outputting focus detection signals, wherein: when n represents a quantity of the first image-capturing pixels, quantities of the second and the third image-capturing pixels, and the first and the second focus detection pixels are n, 2n, 2n and 2n respectively.

Abstract: A movable sensor including a plurality of photo pixel sites arranged in an array comprising a photo sensor and a neutral density filter filtering the photo sensor. Each of the neutral density filters have a density value that are graduated over a range of densities. The sensor is linearly movable across an image. Each point in the image is exposed to at least one pixel site with the graduated density values and each of the photo pixel sites of the array is exposed to a same light input during a time span of exposure, such that the image is captured at a defined range of exposure values and can be combined into a single high dynamic range image.

Abstract: Disclosed are a terminal and a blogging method thereof. In the blogging method, a preview image displayed through a camera is recognized to acquire information of the preview image. It is determined whether there is a stored blog that has background information that is identical to the information of the preview image, and if a stored blog has background information that is identical to the information of the preview image, contents of the stored blog that uses the preview image as its background are imported and the imported contents are displayed on the preview image.

Abstract: A single-lens 2D/3D camera has a light valve placed in relationship to a lens module to control the light beam received by the lens module for forming an image on an image sensor. The light valve has a light valve area positioned in a path of the light beam. The light valve has two or more clearable sections such that only one section is made clear to allow part of the light beam to pass through. By separately making clear different sections on the light valve, a number of images as viewed through slightly different angles can be captured. The clearable sections include a right section and a left section so that the captured images can be used to produce 3D pictures or displays. The clearable sections also include a middle section so that the camera can be used as a 2D camera.

Abstract: A portable terminal selectively includes either a camera unit which has an image pickup section and is formed with an engagement part or a cover unit formed with the same engagement part as the camera unit. An attachment part for engaging with the engagement part is provided in a main body of the portable terminal.

Abstract: An electronic apparatus that enables to realize, with a simple and inexpensive structure, a rotational operation mechanism having rotational operation members of an upper and lower two-tier configuration that can rotate 360 degrees independently from each other. An exterior member forms an exterior section. A tabular member is positioned in and fixed to the exterior member. A hollow shaft is fixed to the tabular member. A first rotational operation member has a shaft section slidably fit in an inner side of the hollow shaft, is supported by the hollow shaft via the shaft section, and rotates slidably with respect to the hollow shaft. A second rotational operation member slidably fits in a hole that pierces through the exterior member and rotates slidably with respect to the exterior member between the first rotational operation member and the exterior member.

Abstract: An image pickup apparatus capable of forming a corrected image which does not give a feeling of wrongness to a user. In the apparatus, an image pickup element photoelectrically converts an optical image to output the same as image data. A target correction value is calculated for correcting image quality degradation due to a lens unit, based on lens characteristic information and a status of the lens unit. A system controller sets a rate of change to stepwise make the current correction value closer to the target correction value, and repeatedly calculates the correction value according to the target correction value and the rate of change. The image data is corrected based on the repeatedly calculated correction value. The rate of change is changed depending on the relationship between a preceding value of the correction value calculated in the past and the target correction value.

Abstract: An image processing apparatus includes a distribution detection unit configured to detect whether a luminance distribution on the screen changes to a hill-shaped form, based on a result of adding photometric values of each of divided photometry areas by rows and by columns, a difference calculation unit configured to calculate a luminance value difference between one portion of the screen and the peripheral portion thereof, a ratio calculating unit configured to calculate a ratio of pixels having a luminance value higher than or equal to a threshold value in the one portion, and a spotlight determination unit configured to determine whether a scene of the captured image is a spotlight scene according to a detection result of the distribution detection unit, calculation result of the difference calculation unit, and a calculation result of the ratio calculation unit.

Abstract: A solid-state imaging apparatus 10 includes a solid-state imaging device 40, and a color filter 16 constituted of a first color filter 16a (first filter) and a second color filter 16b (second filter). The solid-state imaging device 40 photoelectrically converts light incident to a face S1 (first face) thereof to thereby capture an image of an object to be imaged. Arranged on the face S1 of the solid-state imaging device 40 is the first color filter 16a and second color filter 16b. The first color filter 16a is a filter that allows first wavelength band light to be selectively transmitted therethrough; the second color filter 16b is a filter that allows second wavelength band light in the longer wavelength side relative to the first wavelength band to be selectively transmitted therethrough.

Abstract: An adapter coupler for adapting couplings of different design has a first connecting mechanism for the releasable connecting of the adapter coupler to a first coupling, a second connecting mechanism for the releasable connecting of the adapter coupler to a second coupling, and a coupler housing to connect the first connecting mechanism to the second connecting mechanism. With the objective of simplifying the manual manipulation of the adapter coupler, it is configured to be of lightweight construction, wherein the coupler housing is formed from fiber composite material, in particular carbon file composite material, and exhibits a shape adapted to an adapter coupler constructed from metal, and wherein the coupler housing exhibits a sturdy fiber architecture relative to the stress loads it experiences.