Abstract: An image processing device includes: a computation unit that calculates signal values of a plurality of second colors by using signal values of a plurality of first colors obtained from an image sensor; a saturation determiner that determines whether or not at least one of the plurality of first colors is saturated by using the signal values of the plurality of first colors; and a corrector that corrects at least one signal value of the plurality of second colors and outputs a corrected signal value, when the saturation determiner determines that the at least one of the plurality of first colors is saturated.

Abstract: An image processor includes: an image sensor outputting a short exposure image and a long exposure image; a sensor controller that, when brightness of the subject changes, controls first exposure sensitivity to cause the short exposure image to have first brightness and controls second exposure sensitivity to cause the long exposure image to have second brightness; a motion blending ratio calculator calculating a motion blending ratio based on a motion amount of the subject; a motion-adapted image synthesizer generating a motion-adapted image by synthesizing a corrected short exposure image and the long exposure image based on the motion blending ratio; and an HDR image synthesizer generating an HDR image by synthesizing the motion-adapted image and the short exposure image together. When the subject becomes darker, the sensor controller controls the first and second exposure sensitivities to cause the first sensor gain to be at most the second sensor gain.

Abstract: An image processing device configured to synthesize a first image and a second image shot in two or more exposure times different in length in a parallel way within one frame time, includes: a level adjuster configured to adjust the first image and output a corrected first image having a luminance level substantially aligned with a luminance level of the second image; a movement detector configured to calculate absolute values of differences between positionally corresponding pixel pairs in the corrected first image and the second image and accumulate the calculated absolute value on an image block basis to obtain a movement detection amount on the image block basis; a movement blending ratio calculator configured to smoothen the amounts of detected movement and calculate a movement blending ratio between positionally corresponding pixel pairs based on the smoothened amounts of detected movement; and an image synthesizer configured to generate a movement-adaptive image by synthesizing pixels at the correspond

Abstract: An image processor includes: an image sensor outputting a short exposure image and a long exposure image; a sensor controller that, when brightness of the subject changes, controls first exposure sensitivity to cause the short exposure image to have first brightness and controls second exposure sensitivity to cause the long exposure image to have second brightness; a motion blending ratio calculator calculating a motion blending ratio based on a motion amount of the subject; a motion-adapted image synthesizer generating a motion-adapted image by synthesizing a corrected short exposure image and the long exposure image based on the motion blending ratio; and an HDR image synthesizer generating an HDR image by synthesizing the motion-adapted image and the short exposure image together. When the subject becomes darker, the sensor controller controls the first and second exposure sensitivities to cause the first sensor gain to be at most the second sensor gain.

Abstract: An image processing device configured to synthesize a first image and a second image shot in two or more exposure times different in length in a parallel way within one frame time, includes: a level adjuster configured to adjust the first image and output a corrected first image having a luminance level substantially aligned with a luminance level of the second image; a movement detector configured to calculate absolute values of differences between positionally corresponding pixel pairs in the corrected first image and the second image and accumulate the calculated absolute value on an image block basis to obtain a movement detection amount on the image block basis; a movement blending ratio calculator configured to smoothen the amounts of detected movement and calculate a movement blending ratio between positionally corresponding pixel pairs based on the smoothened amounts of detected movement; and an image synthesizer configured to generate a movement-adaptive image by synthesizing pixels at the correspond

Abstract: The video signal processing device has a parallax detection unit for detecting the parallax between a right-eye video signal and a left-eye video signal and outputting the detected parallax as a parallax detection signal. The video signal processing device has an encoding noise detection unit for detecting an encoding noise generated by encoding processing, outputting an encoding noise detection signal corrected by using a detection result of the detected encoding noise based on the parallax detection signal. The video signal processing device has an encoding noise removing unit for performing at least one of reducing the encoding noise by filtering processing using the encoding noise detection signal, and reducing, based on the parallax detection signal, the encoding noise by replacing the data of a noise generating pixel in the right-eye video signal and the left-eye video signal.

Abstract: An object is to provide a stereoscopic video display device having improved convenience which simultaneously displays a plurality of stereoscopic video footages on one screen, thereby allowing a viewer to simultaneously view the plurality of stereoscopic video footages. The stereoscopic video display device includes: a display panel 230 in which a screen for displaying a plurality of stereoscopic video footages is arranged; and a video control section 240 that controls the display of the plurality of stereoscopic video footages. Each stereoscopic video footage includes right-eye video and left-eye video each having parallax with respect to the other. The video control section 240 simultaneously displays the stereoscopic video footages in given positions on the screen, periodically displays the right-eye video and the left-eye video of each stereoscopic video footage, and synchronizes the timing at which the right-eye video and the left-eye video of each stereoscopic video footage are displayed.

Abstract: A video signal processing device includes a subfield conversion unit which converts a frame signal, which is a video signal corresponding to one frame of video, into a plurality of subfields corresponding to the frame signal, a drive parameter setting unit which sets a luminance weight and a light emitting position in the plurality of subfields for each of the plurality of subfields, a calculation unit which calculates a filtering-in amount of the frame signal corresponding to the plurality of subfields based on a signal level of the frame signal, the setup luminance weight, and the light emitting position, and a subtraction unit which subtracts the filtering-in amount from a signal level of a frame signal input to the subfield conversion unit subsequent to the frame signal.

Abstract: Provided is a stereoscopic video display device having increased convenience which simultaneously displays a plurality of stereoscopic video footages on one screen, thereby allowing a viewer to simultaneously view the plurality of stereoscopic video footages. A video control section 240 simultaneously displays first video 250 and second video 260 in given positions on a screen 220, performs adjustment so as to decrease or increase the parallax between right-eye video 251 and left-eye video 252 of the first video 250, or performs adjustment so as to decrease or increase the parallax between right-eye video 261 and left-eye video 262 of the second video 260, in accordance with the parallax between the right-eye video 251 and the left-eye video 252 of first video 250.

Abstract: Multiplication coefficients K1 and K2 in a first multiplying section and a second multiplying section are controlled based on the correlation in a parallax adjusted right-eye signal and a parallax adjusted left-eye signal output from a first parallax adjusting section respectively or based on the parallax calculated by the first parallax adjusting section. Thus, a 3D image processing device is provided that efficiently reduces the noise of a 3D video signal without using frame memory and without being affected by a scene change.

Abstract: An image signal processing device is a stereoscopic image display device displaying a stereoscopic image on a screen with right- and left-eye image signals including parallax therebetween, the device including a parallax detecting unit for detecting information about parallax between right- and left-eye image signals; a non-parallax signal generating unit generating a signal produced by eliminating parallax between right- and left-eye image signals according to the parallax information; a right-left level difference detecting unit generating information about a level difference between non-parallax, right- and left-eye image signals free from parallax therebetween; and a level difference correcting unit correcting right- and left-eye image signals for each given level according to the level difference information.

Abstract: The video signal processing device has a parallax detection unit for detecting the parallax between a right-eye video signal and a left-eye video signal and outputting the detected parallax as a parallax detection signal. The video signal processing device has an encoding noise detection unit for detecting an encoding noise generated by encoding processing, outputting an encoding noise detection signal corrected by using a detection result of the detected encoding noise based on the parallax detection signal. The video signal processing device has an encoding noise removing unit for performing at least one of reducing the encoding noise by filtering processing using the encoding noise detection signal, and reducing, based on the parallax detection signal, the encoding noise by replacing the data of a noise generating pixel in the right-eye video signal and the left-eye video signal.