Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: A combination image has a pair of 3D-presentation images horizontally or vertically arranged and resulting from compressing original 3D-presentation images into half size. One of the left-hand and right-hand haves or the upper and lower halves of the combination image is set as a to-be-enhanced image while the other is set as a reference image. A block having a prescribed number of pixels is formed in the to-be-enhanced image. The formed block extends at and around an interpolation object position. The reference image is searched for a reference block matching in pattern with the formed block. A value at a pixel in the reference block which positionally corresponds to the interpolation object position is decided to be a candidate value for an interpolation-result pixel. The interpolation-result pixel having the candidate value is placed at the interpolation object position to change the to-be-enhanced image into a resolution-enhanced image.

Abstract: Basic depth models indicate depth values of a plurality of basic scene structures. Statistical amounts of pixel values in predetermined areas in a non-3D image are calculated to generate evaluation values. The basic depth models are combined into a combination result according to a combination ratio depending on the generated evaluation values. Calculation is made as to a skin-color intensity indicative of a degree of a skin color at each pixel of the non-3D image. Depth estimation data is generated from the combination result, the non-3D image, and the calculated skin-color intensity. A texture of the non-3D image is shifted in response to the generated depth estimation data to generate a different-viewpoint picture signal. The generated different-viewpoint picture signal and a picture signal representative of the non-3D image make a stereo pair representing a pseudo 3D image.

Abstract: A plurality of basic depth models indicate depth values of a plurality of basic scene structures. Statistical amounts of pixel values in predetermined areas in a non-3D image are calculated to generate first evaluation values. A statistical amount of pixel values in a whole of the non-3D image is calculated to generate a second evaluation value. The basic depth models are combined into a combination result according to a combination ratio depending on the generated first evaluation values. Depth estimation data is generated from the combination result and the non-3D image. A texture of the non-3D image is shifted in response to the generated depth estimation data and the generated second evaluation value to generate a different-viewpoint picture signal. The generated different-viewpoint picture signal and a picture signal representative of the non-3D image make a stereo pair representing a pseudo 3D image.

Abstract: To provide a method of polishing an end face of a multi-fiber optical connector capable of eliminating recesses produced in core parts of multi-mode optical fibers. A polishing base is prepared, comprising a soft material having a Shore hardness of less than 30 and a film having a thickness of less than 75 ?m, without including any polishing material, on said soft material, and further comprising a polishing material on said film. Next, a multi-fiber optical connector having a plurality of multi-mode optical fibers is arranged so that the tip of the multi-mode optical fibers come into contact with the upper surface of the film with a predetermined pressure. Next, the tip of the multi-mode optical fibers are polished by moving at least one of the polishing base and the multi-fiber optical connector while maintaining the contact between the tip of the multi-mode optical fibers and the upper surface of the film.

Abstract: There is provided a holder for an optical fiber ferrule end face grinding apparatus that can make good use of a grinding film, in which the number of optical fiber ferrules held by the holder is greatly increased. The holder includes a holder plate including a plurality of insertion holes into which each of the ferrules is inserted. In the holder plate, the insertion holes are arranged in an area of a certain size extending from the center to the periphery thereof.

Abstract: A ferrule holder assembly for an optical-fiber-end-face grinding apparatus comprises a ferrule holder board supported to be moved upward and downward in parallel with a grinding board of the optical-fiber-end-face grinding apparatus, a ferrule sleeve provided at the ferrule holder board for receiving and supporting an optical fiber ferrule while putting the tip at the grinding board, an adapter for retaining the optical fiber ferrule or a connector for supporting the optical fiber ferrule in a state where the optical fiber ferrule is inserted into the ferrule sleeve, and an urging unit for urging the adapter in a direction opposite to the grinding board from the ferrule holder board.

Abstract: A pseudo 3D image generation device includes frame memories that store a plurality of basic depth models used for estimating depth data based on a non-3D image signal and generating a pseudo 3D image signal; a depth model combination unit that combines the plurality of basic depth models for generating a composite depth model based on a control signal indicating composite percentages for combining the plurality of basic depth models; an addition unit that generates depth estimation data from the non-3D image signal and the composite depth models; and a texture shift unit that shifts the texture of the non-3D image for generating the pseudo 3D image signal.

Abstract: There is provided a holder for an optical fiber ferrule end face grinding apparatus that can make good use of a grinding film, in which the number of optical fiber ferrules held by the holder is greatly increased. The holder includes a holder plate including a plurality of insertion holes into which each of the ferrules is inserted. In the holder plate, the insertion holes are arranged in an area of a certain size extending from the center to the periphery thereof.

Abstract: There is provided a holder for an optical fiber ferrule end face grinding apparatus that can make good use of a grinding film, in which the number of optical fiber ferrules held by the holder is greatly increased. The holder includes a holder plate including a plurality of insertion holes into which each of the ferrules is inserted. In the holder plate, the insertion holes are arranged in an area of a certain size extending from the center to the periphery thereof.