Abstract: An operation device for an into-bore introduction device, includes: a projecting portion formed to project from a grasping section in a radial direction to a longitudinal axis of the grasping section, in a surface between a surface on which a bending operation knob is disposed and a surface on which operator's palm abuts to grasp the grasping section, in the grasping section; a pressing switch disposed on the projecting portion; and an inclined surface formed distantly by as much as a predetermined distance from the pressing switch, and in which an amount of the inclined surface to project outside in the radial direction is decreased on an insertion section side of the projecting portion.

Abstract: An optical module includes a substrate, a silicon photonics chip disposed in an opening of the substrate, a control chip disposed across the substrate and the silicon photonics chip, a plurality of laser diodes disposed over the silicon photonics chip, and a metallic bar in contact with each of terminals of the plurality of laser diodes and electrically coupling each of the terminals with the silicon photonics chip or the substrate.

Abstract: A method for manufacturing an intermittent bonding type optical fiber ribbon which is capable of forming non-connection portions and intermittent connection portions between adjacent coated optical fibers formed into an optical fiber ribbon by performing a laser processing for the ribbon through irradiation with a pulse laser light, thereby making it possible to rapidly form the intermittent connection portions and the non-connection portions while maintaining high linear velocity of the coated optical fiber. The non-connection portions and the intermittent connection portions are formed in the obtained intermittent bonding type optical fiber ribbon through the irradiation with the pulse laser light, so the intermittent bonding type optical fiber ribbon becomes the intermittent bonding type optical fiber ribbon, which is capable of securing operability during collective connection and surely being subjected to an intermediate branching without damaging cable characteristics during high density mounting.

Abstract: A BGA package substrate includes a substrate, a resist formed over the substrate and includes an opening, a land formed over the substrate in the opening, and a solder ball fused to the land, wherein the resist includes a notch at an edge of the opening through which the land is exposed, the notch having a bottom at a position lower than a surface of the land.

Abstract: An aliphatic dicarboxylic acid, an aliphatic diol or a derivatives thereof and/or as succinic acid, a butane diol, or a both-hydroxy-terminated polyether having the number of carbon atoms of 4 to 1000, each of which is derived from a biomass resource and has nitrogen atoms in an amount of 0.01 to 100 ppm. Products and methods using these materials are also provided.

Abstract: An optical module includes: a substrate including a through hole, a first chip including a first heating member and disposed in the through hole, a second chip including a second heating member and bonded to a first upper surface of the substrate and a second upper surface of the first chip via bumps, and a first heat sink adhered to a lower surface of the substrate with a first adhesive and adhered to a lower surface of the first chip with a second adhesive, wherein the substrate includes a slit which is provided on a side of a first portion, to which the second chip is bonded, of the substrate with respect to the through hole, and communicates with the through hole.

Abstract: An aliphatic dicarboxylic acid, an aliphatic diol or a derivatives thereof and/or as succinic acid, a butane diol, or a both-hydroxy-terminated polyether having the number of carbon atoms of 4 to 1000, each of which is derived from a biomass resource and has nitrogen atoms in an amount of 0.01 to 100 ppm. Products and methods using these materials are also provided.

Abstract: A stereoscopic image display apparatus includes: a display device; an acquisition device for acquiring a left eye image and a right eye image; a first display control device for displaying a stereoscopic image on the display device based on the left and right eye image; an instruction reception device for receiving an instruction indicating enlargement and display of a partial area deviated in a horizontal direction from a center of the stereoscopic image; a cut-out device for cutting out areas necessary for the enlargement and display from the left and right eye image in response to the instruction; a deviation amount calculation unit for calculating a deviation amount in a vertical direction between a center of the left eye image and a center of the right eye image; an image movement device for moving the left eye image and/or the right eye image in the vertical direction by the calculated deviation amount; and a second display control device for enlarging and displaying the partial area on the display devi

Abstract: A cut-out process of image corresponding to an amount of optical axis deviation of left and right imaging optical systems is applied to left and right images acquired by the left and right imaging units to correct an optical axis deviation. In this case, the amount of optical axis deviation corresponding to a current focus position is acquired from the amounts of optical axis deviation detected in accordance with focus positions stored in advance in a storage unit (step S38). A cut-out process of image for stereoscopic display is applied to the left and right images based on the acquired amount of optical axis deviation (step S40). As a result, the optical axis deviation of the left and right imaging optical systems can be excellently corrected regardless of the focus position (subject distance).

Abstract: Distortion correction with different correction accuracy is performed on images acquired in accordance with an image pick-up mode for a 3D moving image, a 3D still image, and the like, and an image cut-out process corresponding to an optical axis deviation amount of each of right and left photographing optical systems is also performed thereon, whereby optical axis deviation is corrected. In this case, an optical axis deviation amount corresponding to a current image pick-up mode is read out from among optical axis deviation amounts after distortion correction, the optical axis deviation amounts being stored in advance into an EEPROM at the time of adjustment before shipment and corresponding to respective image pick-up modes. Distortion correction corresponding to the current image pick-up mode is performed on right and left images acquired in accordance with the current image pick-up mode.

Abstract: A lens unit is equipped with a lens, through which light from an object enters, and a lens barrel for holding the lens. An optical extending member is employed when observing a focal image of the lens with a microscope. A receiving portion having a receiving surface, for receiving a front end facet of the optical path extending member within the lens barrel that faces toward the lens, is formed at a portion of the lens barrel. A mounting portion positioned further rearward from a rear end facet of the optical path extending member, having a guide insertion aperture that extends in a direction perpendicular to the receiving surface and a mounting surface that extends in a direction parallel to the receiving surface is formed at the periphery of the guide insertion aperture is formed at a portion of the lens barrel.

Abstract: A cut-out process of image corresponding to an amount of optical axis deviation of left and right imaging optical systems is applied to left and right images acquired by the left and right imaging units to correct an optical axis deviation. In this case, the amount of optical axis deviation corresponding to a current focus position is acquired from the amounts of optical axis deviation detected in accordance with focus positions stored in advance in a storage unit (step S38). A cut-out process of image for stereoscopic display is applied to the left and right images based on the acquired amount of optical axis deviation (step S40). As a result, the optical axis deviation of the left and right imaging optical systems can be excellently corrected regardless of the focus position (subject distance).

Abstract: Distortion correction with different correction accuracy is performed on images acquired in accordance with an image pick-up mode for a 3D moving image, a 3D still image, and the like, and an image cut-out process corresponding to an optical axis deviation amount of each of right and left photographing optical systems is also performed thereon, whereby optical axis deviation is corrected. In this case, an optical axis deviation amount corresponding to a current image pick-up mode is read out from among optical axis deviation amounts after distortion correction, the optical axis deviation amounts being stored in advance into an EEPROM at the time of adjustment before shipment and corresponding to respective image pick-up modes. Distortion correction corresponding to the current image pick-up mode is performed on right and left images acquired in accordance with the current image pick-up mode.

Abstract: A stereoscopic image display apparatus includes: a display device; an acquisition device for acquiring a left eye image and a right eye image; a first display control device for displaying a stereoscopic image on the display device based on the left and right eye image; an instruction reception device for receiving an instruction indicating enlargement and display of a partial area deviated in a horizontal direction from a center of the stereoscopic image; a cut-out device for cutting out areas necessary for the enlargement and display from the left and right eye image in response to the instruction; a deviation amount calculation unit for calculating a deviation amount in a vertical direction between a center of the left eye image and a center of the right eye image; an image movement device for moving the left eye image and/or the right eye image in the vertical direction by the calculated deviation amount; and a second display control device for enlarging and displaying the partial area on the display devi

Abstract: A running rail 9 and a second overhead vehicle 12 are arranged parallel to a running rail 7 for a first overhead vehicle 10 and closer to inspection devices 20 than the running rail 7. A buffer 14 is provided below the running rail 7. The overhead vehicle 12 conveys a cassette 40 between load ports 24 and the buffer 14. The overhead vehicle 10 conveys the cassette 40 between the buffer 14 and other positions. The present invention can deal with inspection devices or the like which have a high throughput by locally improving their conveying capability.

Abstract: An article is conveyed from a load port 26a for a processing device 16 to a load port 26b for a processing device 20. An overhead buffer 28 is provided for each load port 26. An overhead travelling carriage 14 can freely deliver the article to the load port 26 or to the overhead buffer 28. The article can be conveyed directly between processing devices for different processes via inter-bay routes 6, 7. Only a short time is required for conveyance. It is unnecessary to provide stockers between the intra-bay routes 6, 7 and the inter-bay route 8.

Abstract: A lens unit is equipped with a lens, through which light from an object enters, and a lens barrel for holding the lens. An optical extending member is employed when observing a focal image of the lens with a microscope. A receiving portion having a receiving surface, for receiving a front end facet of the optical path extending member within the lens barrel that faces toward the lens, is formed at a portion of the lens barrel. A mounting portion positioned further rearward from a rear end facet of the optical path extending member, having a guide insertion aperture that extends in a direction perpendicular to the receiving surface and a mounting surface that extends in a direction parallel to the receiving surface is formed at the periphery of the guide insertion aperture is formed at a portion of the lens barrel.

Abstract: An automatic warehouse 8 is provided parallel to a running rail 4 for an overhead travelling carriage 6. Open shelves 16 each of which is open on its side are provided in a rack 10. According to the present invention, articles can be transferred directly to and from a shelf in the automatic warehouse.

Abstract: An image-taking apparatus including an auxiliary light projecting section that is small in size in spite of using multiple projection elements and is capable of performing extensive illumination to a range including parallax while maintaining a certain degree of brightness until reaching a given distance, and a projection module suitable for being loaded on the image-taking apparatus are provided. This apparatus projects light from three light points onto an object in a projection pattern shown in part (b) of FIG. 11 by use of a lens split into three regions. The light from the three light points is formed respectively into three beams by use of each of projecting sections subjected to region splitting, and single light beams out of sets of three beams are projected so as to overlap one another.

Abstract: A plurality of terminal devices, e.g., game apparatuses 2 are interconnected to each other through a network 4. The respective game apparatuses 2 receive signals inputted from the outside, e.g., television signals broadcast from a broadcasting antenna and extract synchronizing signals from the broadcasting signals. Based on the extracted synchronizing signals, the respective game apparatuses 2 make synchronization control of operations, data communication among the respective game apparatuses 2. The respective game apparatuses 2 use the common signals to make the synchronization control, whereby the respective game apparatuses 2 can be synchronized with one another suitably without timing shift. The terminal devices synchronizing method can suitably synchronize timings of communication among a plurality of terminal devices.