Abstract: A video signal processing device includes: a stereo conversion unit which generates a stereo superimposed signal by performing stereo conversion processing on a superimposed signal obtained by superimposing, on a two-dimensional video signal, an additional information signal indicating additional information to be combined with a two-dimensional video and displayed, and shifts a first locating signal indicating a position of the additional information in the two-dimensional video, according to an amount of shift caused by the stereo conversion processing on the additional information signal, to generate a second locating signal indicating a position of the additional information in a video indicated by the stereo superimposed signal; and a correction unit performs, on the stereo superimposed signal, quality correction for an area other than an area located by the second locating signal.

Abstract: The instant application discloses an eyewear device for assisting in viewing a stereoscopic video. The eyewear device includes a light amount adjuster which adjusts a light amount entering each of left and right eyes; and a controller which controls the light amount adjuster in response to a timing signal for notifying a timing of an increase period during which the transmission amount is increased. The controller includes a detector detecting a non-reception period in which the timing signal is not received; a storage portion storing period data which define a length of the increase period in the non-reception period; and a flywheel controller controlling the light amount adjuster in the non-reception period in response to the period data. If the non-reception period exceeds a threshold period which is defined for the non-reception period, the flywheel controller controls the light amount adjuster so that the increase period is shortened.

Abstract: A three-dimensional display device includes display unit for displaying left- and right-eye images alternately; and transmission control unit for transmitting a synchronizing signal indicating a timing for starting to display the left-eye image or the right-eye image on display unit, intermittently at a given transmission timing. Transmission control unit changes the given transmission timing according to a given condition and transmits the synchronizing signal.

Abstract: An image processor includes a 3D image output section for outputting a 3D image; an average parallax calculator for calculating a parallax level of each predetermined pixel based on a lefty-eye image and a right-eye image, and calculating an average screen parallax level based on the parallax level; a data acquisition section for detecting the type of 3D image or a characteristic of synthesized image; a correcting and synthesizing section for correcting the average screen parallax level depending on the type of 3D image or the characteristic of synthesized image, setting a corrected average parallax level as parallax to be added to the caption or OSD, adding the parallax to the caption or OSD, and synthesizing a caption or OSD with parallax; and an image synthesizer for superimposing the caption or OSD synthesized image with parallax on the 3D image.

Abstract: A digital television signal processor stores moving image resolution of a display unit in advance, and reduces an afterimage of subtitle on the display unit by controlling a subtitle scrolling speed based on the stored moving image resolution.

Abstract: It is intended to provide a peptide or a phage recognizing nanographite structures and thus enabling efficient recognition, binding, separation and alignment of nanographite structures such as carbon nanohorns or carbon nanotubes, an artificial protein or a chimeric molecule comprising the above-described peptide bonded to a functional peptide, a protein, a labeling, etc., and a complex of the above-described peptide molecule, artificial protein or chimeric molecule with a nanographite structure. By panning peptide-presenting phages bonded to nanographite structures, a nanographite structure-binding peptide capable of specifically recognizing nanographite structures such as carbon nanohorns or carbon nanotubes is obtained.

Abstract: It is intended to provide a peptide or a phage recognizing nanographite structures and thus enabling efficient recognition, binding, separation and alignment of nanographite structures such as carbon nanohoms or carbon nanotubes, an artificial protein or a chimeric molecule comprising the above-described peptide bonded to a functional peptide, a protein, a labeling, etc., and a complex of the above-described peptide molecule, artificial protein or chimeric molecule with a nanographite structure. By panning peptide-presenting phages bonded to nanographite structures, a nanographite structure-binding peptide capable of specifically recognizing nanographite structures such as carbon nanohoms or carbon nanotubes is obtained.