Abstract: Solid-state imaging devices, methods of driving solid-state imaging devices, and electronic devices are disclosed. In one example, a solid-state imaging device includes a pixel array unit in which pixels are two-dimensionally arranged in a matrix. At least some pixel rows include a first signal line configured to transmit a drive signal for driving a first transfer transistor of a first pixel in units of microlenses having a color filter of a first color, a second signal line configured to transmit a drive signal for driving a second transfer transistor of a second pixel different from the first pixel, and a third signal line configured to transmit a drive signal for driving a third transfer transistor of a third pixel in units of microlenses having a color filter of a second color different from the first color.

Abstract: Color accuracy in an imaging device is improved. An imaging element includes a plurality of pixels that acquires first information that is information of three primary colors and second information that is information of at least two colors different from the three primary colors and that includes at least one of complementary colors of the three primary colors.

Abstract: Solid-state imaging devices, methods of driving solid-state imaging devices, and electronic devices are disclosed. In one example, a solid-state imaging device includes a pixel array unit in which pixels are two-dimensionally arranged in a matrix. At least some pixel rows include a first signal line configured to transmit a drive signal for driving a first transfer transistor of a first pixel in units of microlenses having a color filter of a first color, a second signal line configured to transmit a drive signal for driving a second transfer transistor of a second pixel different from the first pixel, and a third signal line configured to transmit a drive signal for driving a third transfer transistor of a third pixel in units of microlenses having a color filter of a second color different from the first color.

Abstract: An imaging control apparatus according to the present disclosure includes an imaging controller that synchronizes an exposure timing of a first imaging device that performs exposure by a rolling shutter system and an exposure timing of a second imaging device that performs exposure by a rolling shutter system with imaging conditions different from imaging conditions of the first imaging device, on a basis of the imaging conditions.

Abstract: A signal processing apparatus according to an embodiment of the present disclosure includes a positioner and a synthesizer. The positioner generates, on the basis of two pieces of RAW data different in angle of view from each other, positioning data of the two pieces of RAW data. The synthesizer synthesizes the two pieces of RAW data with each other on the basis of the positioning data generated by the positioner.

Abstract: A signal processing apparatus according to an embodiment of the present disclosure includes a positioner and a synthesizer. The positioner generates, on the basis of two pieces of RAW data different in angle of view from each other, positioning data of the two pieces of RAW data. The synthesizer synthesizes the two pieces of RAW data with each other on the basis of the positioning data generated by the positioner.

Abstract: A signal processing apparatus according to an embodiment of the present disclosure includes a positioner and a synthesizer. The positioner generates, on the basis of two pieces of RAW data different in angle of view from each other, positioning data of the two pieces of RAW data. The synthesizer synthesizes the two pieces of RAW data with each other on the basis of the positioning data generated by the positioner.

Abstract: A signal processing apparatus of one embodiment of the disclosure includes a composition unit that generates first composite imaging data, by adding together a low-frequency component of first imaging data, a high-frequency component of the first imaging data, and a high-frequency component of second imaging data. The first imaging data is imaging data of a relatively wide angle of view, out of two pieces of imaging data that differ in angle of view from each other. The second imaging data is imaging data of a relatively narrow angle of view, out of the two pieces of the imaging data.

Abstract: An imaging control apparatus according to the present disclosure includes an imaging controller that synchronizes an exposure timing of a first imaging device that performs exposure by a rolling shutter system and an exposure timing of a second imaging device that performs exposure by a rolling shutter system with imaging conditions different from imaging conditions of the first imaging device, on a basis of the imaging conditions.

Abstract: A signal processing apparatus according to an embodiment of the present disclosure includes a positioner and a synthesizer. The positioner generates, on the basis of two pieces of RAW data different in angle of view from each other, positioning data of the two pieces of RAW data. The synthesizer synthesizes the two pieces of RAW data with each other on the basis of the positioning data generated by the positioner.

Abstract: A signal processing apparatus of one embodiment of the disclosure includes a composition unit that generates first composite imaging data, by adding together a low-frequency component of first imaging data, a high-frequency component of the first imaging data, and a high-frequency component of second imaging data. The first imaging data is imaging data of a relatively wide angle of view, out of two pieces of imaging data that differ in angle of view from each other. The second imaging data is imaging data of a relatively narrow angle of view, out of the two pieces of the imaging data.

Abstract: Provided is a signal processing device performing filter processing operations on an input signal using a plurality of filters to generate an output signal, including a filter processing unit configured to perform a filter processing operation on the input signal using a filter and a generating unit configured to generate the output signal by adding a correction value determined on the basis of each sign and each absolute value of each difference between each of filtered output signals obtained by the filter processing operations performed using a plurality of the above mentioned filter processing units and the input signal, to the input signal.

Abstract: An image processing device includes: a step calculator configured to calculate, as a step, a difference in pixel values of pixels in a neighborhood with respect to each pixel in an image; a classifier configured to classify the pixels into classes for areas of the steps; a boundary ratio calculator configured to calculate, as a boundary ratio, a ratio of the number of pixels at a block boundary for each of the classes; and a block noise strength determinator configured to determine, as a block noise strength of the image, the step that is larger than a predetermined threshold and that is at a class having a largest value.

Abstract: An image processing device includes: a step calculator configured to calculate, as a step, a difference in pixel values of pixels in a neighborhood with respect to each pixel in an image; a classifier configured to classify the pixels into classes for areas of the steps; a boundary ratio calculator configured to calculate, as a boundary ratio, a ratio of the number of pixels at a block boundary for each of the classes; and a block noise strength determinator configured to determine, as a block noise strength of the image, the step that is larger than a predetermined threshold and that is at a class having a largest value.

Abstract: An information processing device includes: a block level information obtaining unit to detect a block level from the difference in pixel values between each pixel of an image and nearby pixels and to obtain distribution information wherein the block levels are accumulated for each position in a predetermined direction; a short cycle measuring unit to measure short cycle information which is the distribution information for each phase in a plurality of predetermined short cycles corresponding to a plurality of block sizes from the distribution information; and a determining unit to determine the block size corresponding to the short cycle information wherein the phase distribution takes a maximum value, of the short cycle information of the plurality of predetermined short cycles corresponding to the plurality of block sizes, as the block size in the image.

Abstract: Disclosed herein is an image processing apparatus, including a noise detection section, a scaling section, an adjustment signal production section, and a correction section. The noise detection section is adapted to detect block noise based on an input image signal in a compression coded form and output noise information indicative of the detected block noise. The scaling section is adapted to carry out a scaling process for carrying out enlargement or reduction of an image indicated by the input image signal for the input image signal and output scaling information indicative of an enlargement ratio or a reduction ratio. The adjustment signal production section is adapted to output an adjustment signal indicative a degree of correction based on the noise information and the scaling information. The correction section is adapted to correct the image signal for which the scaling process is carried out based on the adjustment signal.

Abstract: A signal processing apparatus for performing a filtering process on an input image using a plurality of filters to generate an output image includes the following elements. A region variance value calculating unit calculates a region variance value for a region around a predetermined pixel used as a pixel of interest on the input image. A filter processing unit applies a filtering process to a pixel value of the pixel of interest using the filters. A reflection amount determining unit determines a reflection amount based on the region variance value. A combining unit calculates a pixel value of a pixel of the output image corresponding to the pixel of interest on the basis of respective filter output values obtained by filtering processes applied by a plurality of filter processing units, respective reflection amounts determined with respect to the filter output values, and the pixel value of the pixel of interest.

Abstract: A data processing apparatus for processing image data includes a variance information calculator configured to calculate variance information indicating the degree of variance of pixel values for each of a plurality of pixels constituting the image data; a smoothing section configured to smooth the variance information and to output a smoothed value; a determination section configured to determine an area to which the pixel belongs on the basis of the smoothed value and to output area information indicating the area; a parameter determination section configured to determine a parameter for a noise removal process for each of the pixels constituting the image data on the basis of the area information and the smoothed value; and a noise removal section configured to perform the noise removal process on the image data on the basis of the parameter determined for each of the pixels.

Abstract: Provided is a signal processing device performing filter processing operations on an input signal using a plurality of filters to generate an output signal, including a filter processing unit configured to perform a filter processing operation on the input signal using a filter and a generating unit configured to generate the output signal by adding a correction value determined on the basis of each sign and each absolute value of each difference between each of filtered output signals obtained by the filter processing operations performed using a plurality of the above mentioned filter processing units and the input signal, to the input signal.

Abstract: An information processing device includes: a block level information obtaining unit to detect a block level from the difference in pixel values between each pixel of an image and nearby pixels and to obtain distribution information wherein the block levels are accumulated for each position in a predetermined direction; a short cycle measuring unit to measure short cycle information which is the distribution information for each phase in a plurality of predetermined short cycles corresponding to a plurality of block sizes from the distribution information; and a determining unit to determine the block size corresponding to the short cycle information wherein the phase distribution takes a maximum value, of the short cycle information of the plurality of predetermined short cycles corresponding to the plurality of block sizes, as the block size in the image.