Abstract: An image processing apparatus includes a superimposition processing unit that performs a blending process for a plurality of continuously captured images, wherein the superimposition processing unit is configured to selectively input luminance signal information of a RAW image or a full color image as a processing target image and perform a superimposition process, and performs a process for sequentially updating data that is stored in a memory for storing two image frames so as to enable superimposition of any desired number of images.

Abstract: A color filter allows a light signal to pass through by each pixel and be incident on an imaging device. The light signal is inputted through a lens and including one of plural different spectral components. The plural different spectral components include a first spectral component which has a widest frequency bandwidth among the plural different spectral components, a second spectral component corresponding to a predetermined frequency band close to a frequency that causes no chromatic aberration of the lens, and a third spectral component expressed in terms of a linear sum of a value resulting from multiplying the first spectral component by a first weighting factor and a value resulting from multiplying the second spectral component by a second weighting factor.

Abstract: The present invention relates to an imaging apparatus and method and program whereby composition can more readily be confirmed. An imaging unit 432 receives light from a lens 431 and images an imaging image; an extracting unit 435 extracts an extracted image which is an image having a different size from the imaging image and which includes a subject having a high degree of focus; a synthesizing unit 436 synthesizes the extracted image so that the positions of the subject match to the imaging image; and a display unit 438 displays the imaging image of the portions corresponding to a predetermined region having the same size as the extracted image in the display region wherein the entire imaging image can be displayed, and displays the extracted image that has been synthesized with the imaging image. The present invention can be applied to a digital camera, for example.

Abstract: The present invention relates to an image processing apparatus and method, an image capturing apparatus, and a program which make it possible to crop an image with an optimal composition even for a subject other than a person. A composition pattern setting section 33 sets a composition pattern corresponding to an input image, on the basis of the number of salient regions to which attention is directed in the input image, and the scene of the input image. On the basis of the composition pattern set by the composition pattern setting section 33, a composition analyzing section 34 determines a crop region in the input image which is optimal for an image to be cropped in the composition pattern from the input image. The present invention is applicable to, for example, an image processing apparatus that adjusts the composition of a captured image.

Abstract: The present invention relates to an imaging apparatus and method and program whereby composition can more readily be confirmed. An imaging unit 432 receives light from a lens 431 and images an imaging image; an extracting unit 435 extracts an extracted image which is an image having a different size from the imaging image and which includes a subject having a high degree of focus; a synthesizing unit 436 synthesizes the extracted image so that the positions of the subject match to the imaging image; and a display unit 438 displays the imaging image of the portions corresponding to a predetermined region having the same size as the extracted image in the display region wherein the entire imaging image can be displayed, and displays the extracted image that has been synthesized with the imaging image. The present invention can be applied to a digital camera, for example.

Abstract: The present invention relates to an image processing apparatus and method, an image capturing apparatus, and a program which make it possible to crop an image with an optimal composition even for a subject other than a person. A composition pattern setting section 33 sets a composition pattern corresponding to an input image, on the basis of the number of salient regions to which attention is directed in the input image, and the scene of the input image. On the basis of the composition pattern set by the composition pattern setting section 33, a composition analyzing section 34 determines a crop region in the input image which is optimal for an image to be cropped in the composition pattern from the input image. The present invention is applicable to, for example, an image processing apparatus that adjusts the composition of a captured image.

Abstract: An image processing apparatus includes a frequency information extracting unit configured to extract frequency information of an input image, a color information extracting unit configured to extract color information of the input image, a feature amount calculating unit configured to calculate a feature amount of the input image on the basis of the frequency information extracted by the frequency information extracting unit and the color information extracted by the color information extracting unit, and a scene determining unit configured to determine a scene of the input image on the basis of the feature amount calculated by the feature amount calculating unit.

Abstract: An image processing apparatus includes a superimposition processing unit which performs a blend process on a plurality of images which are continuously photographed. The superimposition processing unit includes a moving subject detection unit, a blend processing unit, and a noise reduction processing unit. The moving subject detection unit detects the moving subject region of an image, and generates moving subject information in units of an image region. The blend processing unit generates a superimposition image by performing a blend process on the plurality of images using a high blend ratio in a stationary subject region and using a low blend ratio in the moving subject region based on the moving subject information. The noise reduction processing unit performs a stronger pixel value smoothing process on the moving subject region of the superimposition image based on the moving subject information.

Abstract: A color filter allows a light signal to pass through by each pixel and be incident on an imaging device. The light signal is inputted through a lens and including one of plural different spectral components. The plural different spectral components include a first spectral component which has a widest frequency bandwidth among the plural different spectral components, a second spectral component corresponding to a predetermined frequency band close to a frequency that causes no chromatic aberration of the lens, and a third spectral component expressed in terms of a linear sum of a value resulting from multiplying the first spectral component by a first weighting factor and a value resulting from multiplying the second spectral component by a second weighting factor.

Abstract: A biological-information obtaining apparatus includes a light-emitting unit, an image sensor configured to capture images, in a time sequence, relating to a living body, and a lens. The apparatus also includes an extreme-occurrence-time obtaining unit configured to obtain times T1 and T2 at which extremes occur in time sequence with respect to brightness values of a first region and a second region, respectively, of each of the captured images. The apparatus further includes a pulse wave velocity (PWV) calculation unit configured to calculate a pulse wave velocity according to the equation, P=(Y×L/f)/(T2?T1), where Y represents a distance on the image sensor, the distance corresponding to a distance between the first region and the second region, f represents the focal length of the lens, and L represents a distance between the lens and the living body.

Abstract: A color filter allows a light signal to pass through by each pixel and be incident on an imaging device. The light signal is inputted through a lens and including one of plural different spectral components. The plural different spectral components include a first spectral component which has a widest frequency bandwidth among the plural different spectral components, a second spectral component corresponding to a predetermined frequency band close to a frequency that causes no chromatic aberration of the lens, and a third spectral component expressed in terms of a linear sum of a value resulting from multiplying the first spectral component by a first weighting factor and a value resulting from multiplying the second spectral component by a second weighting factor.

Abstract: An image processing apparatus includes a superimposition processing unit that performs a blending process for a plurality of continuously captured images, wherein the superimposition processing unit is configured to selectively input luminance signal information of a RAW image or a full color image as a processing target image and perform a superimposition process, and performs a process for sequentially updating data that is stored in a memory for storing two image frames so as to enable superimposition of any desired number of images.

Abstract: A photographing apparatus includes the following elements. A photographing unit photographs an object. A position detecting unit detects the position of the photographing apparatus. A direction detecting unit detects the direction of the photographing apparatus when the object is photographed. An angle-of-view detecting unit detects the angle of view of the photographed image. A recommended-composition information obtaining unit obtains recommended-composition information including a recommended angle of view of the image photographed at the detected position and a recommended direction. An angle-of-view comparing unit compares the detected angle of view with the recommended angle of view. An angle-of-view adjusting unit adjusts the angle of view in accordance with the result of the comparison. A direction comparing unit compares the detected direction with the recommended direction.

Abstract: The present invention relates to an imaging apparatus and method and program whereby composition can more readily be confirmed. An imaging unit 432 receives light from a lens 431 and images an imaging image; an extracting unit 435 extracts an extracted image which is an image having a different size from the imaging image and which includes a subject having a high degree of focus; a synthesizing unit 436 synthesizes the extracted image so that the positions of the subject match to the imaging image; and a display unit 438 displays the imaging image of the portions corresponding to a predetermined region having the same size as the extracted image in the display region wherein the entire imaging image can be displayed, and displays the extracted image that has been synthesized with the imaging image. The present invention can be applied to a digital camera, for example.

Abstract: A photographing apparatus includes the following elements. A photographing unit photographs an object. A position detecting unit detects the position of the photographing apparatus. A direction detecting unit detects the direction of the photographing apparatus when the object is photographed. An angle-of-view detecting unit detects the angle of view of the photographed image. A recommended-composition information obtaining unit obtains recommended-composition information including a recommended angle of view of the image photographed at the detected position and a recommended direction. An angle-of-view comparing unit compares the detected angle of view with the recommended angle of view. An angle-of-view adjusting unit adjusts the angle of view in accordance with the result of the comparison. A direction comparing unit compares the detected direction with the recommended direction.

Abstract: An image processing apparatus includes a frequency information extracting unit configured to extract frequency information of an input image, a color information extracting unit configured to extract color information of the input image, a feature amount calculating unit configured to calculate a feature amount of the input image on the basis of the frequency information extracted by the frequency information extracting unit and the color information extracted by the color information extracting unit, and a scene determining unit configured to determine a scene of the input image on the basis of the feature amount calculated by the feature amount calculating unit.

Abstract: A smoothing calculator determines a smoothed mean luminance value C1×?(t)+(1?C1)??(t?1) based on a mean luminance value ?(t) input at time t and a smoothed mean luminance value ??(t?1) read at time (t?1) from a buffer, and outputs the smoothed mean luminance value C1×?(t)+(1?C1)??(t?1) as the smoothed mean luminance value ?(t) of the mean luminance value ?(t). Coefficient C1 is greater than 0 but smaller than 1. Gradation conversion responsive to luminance variation from frame to frame in a moving image is thus achieved.

Abstract: An image processing apparatus and an image processing method are disclosed by which an image correction process for a false color such as a purple fringe can be executed efficiently while excessive reduction of the saturation is prevented to produce image data of a high quality. A saturation reduction rate corresponding to each pixel is calculated, and saturation reduction of the pixel is executed based on the saturation reduction rate. Then, saturation correction is executed so that the difference between the hue of the pixel whose saturation has been reduced and a surrounding reference pixel may be reduced. Further, a surrounding pixel to be referred to in the saturation correction process is selected along a scanning line.

Abstract: A biological-information obtaining apparatus includes a light-emitting unit configured to emit light, an image-capturing unit configured to capture images, in time sequence, obtained by irradiating a living body with the light emitted and by causing the light to be transmitted through or reflected by the living body, the image-capturing unit being sensitive to at least two color components, an extreme generation unit configure to generate, for each of the captured images in the time sequence, a maximum value and a minimum value of each of the color components in a certain area of the captured image, and an oxygen-saturation calculation unit configured to calculate oxygen saturation on the basis of the maximum value and the minimum value of each of the color components in the certain area of the captured image.

Abstract: A biological-information obtaining apparatus includes a light-emitting unit, an image sensor configured to capture images, in time sequence, relating to a living body, a lens, an extreme-occurrence-time obtaining unit configured to obtain times T1 and T2 at which extremes occur in time sequence with respect to brightness values of a first region and a second region of each of the captured images, the time T1 being obtained for one of the first regions and the time T2 being obtained for one of the second regions, and a PWV calculation unit configured to calculate a pulse wave velocity P=(Y×L/f)/(T2?T1), where Y represents a distance on the image sensor, the distance corresponding to a distance between the first region and the second region, f represents the focal length of the lens, and L represents a distance between the lens and the living body.