Abstract: An information processing apparatus includes: a user interface unit including a display unit and an input unit; and a processor outputting, by an operation of a user, a diagnostic/recovery menu in which a processing detail of each of a plurality of diagnostic/recovery processing is associated with importance of the processing detail on the display unit as well as determining a range and a type of information to be acquired for a trouble analysis on the basis of diagnostic/recovery processing selected by the user on the diagnostic/recovery menu and storing the determined information into a storage unit along with the importance.

Abstract: A multilayer composite body in which a shaped metal article, a thermosetting resin layer, a modified polyolefin resin layer, and a polypropylene-based resin composition, or a PP-based GFRTP are laminated in the order of description. A multilayer composite body of a metal and a resin is obtained which excels in a fixing strength (shear breaking stress) between the shaped metal article and the molded article of the polypropylene-based resin composition. The thermosetting resin layer is composed mainly of a urethane resin or an epoxy resin. The polypropylene-based resin composition is molded by an injection molding. The modified polyolefin resin forming the modified polyolefin resin layer includes one or two or more of non-chlorinated modified polyolefin resins having a weighted average of melting points of 70° C. to 110° C., as determined with a differential scanning calorimeter (DSC).

Abstract: A crystalized red pigment of saw palmetto fruit obtained by extracting a saw palmetto fruit with ethanol and depositing a red pigment in the extract.

Abstract: In one embodiment, a Sagnac interferometer-type fiber-optic sensor includes a synchronous detection circuit to carry out synchronous detection of detected light signal with a phase modulation angular frequency of a phase modulator. A signal processing circuit calculates and outputs the magnitude of current to be measured using the signal detected in the synchronous detection circuit. A phase modulator driving circuit controls the driving of the phase modulator. The phase modulator driving circuit controls a phase modulation depth of the phase modulator so that the amplitude of the second-order harmonics and the fourth-order harmonics obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency becomes the same.

Abstract: An optical scanning endoscope with an optical fiber, and a fiber driving unit with a plurality of actuators which bend side surfaces of the optical fiber by applying a pressing force. A mounting member is a substantially cylindrical molded interconnect device (MID) component which supports the fiber driving unit. A control circuit supplies driving signals to each of the actuators to control the bending amount and direction of the optical fiber. A wiring member electrically connects wiring patterns on the mounting member with the control circuit. The mounting member has a planar surface section at one proximal-end-surface side of the cylindrical outer-peripheral surface. The wiring patterns include at least first patterns having one end portion disposed on the planar surface section to form soldering lands. The other end portions are electrically connected to the actuators on the proximal-end surface of the mounting member. The wiring member is connected to the soldering lands.

Abstract: An object stop position control method includes: when a movement instruction as to an object displayed on a display unit is received by a first operation method, moving the object in accordance with the movement instruction, stopping the movement of the object based on the movement instruction when the object moves past a predetermined stop position, and causing the object to automatically stop at the stop position; and, when the movement instruction is received by a second operation method, not causing the object to automatically stop, but moving the object in accordance with the movement instruction.

Abstract: Disclosed is an object stop position control method, including: moving an object displayed on a display unit in accordance with a movement instruction for moving the object, in case that the movement instruction is received from a user; and stopping a movement of the object, which is carried out in accordance with the movement instruction, to stop the object at a predetermined stop position, in case that it is judged that the object passes the predetermined stop position in the movement of the object.

Abstract: In an embodiment, each of first and second pixel rows has pixels. A first transfer gate is arranged between the first and second pixel rows. Second transfer gates are arranged adjacently to odd-numbered pixels of the second pixel row, respectively. Third transfer gates are arranged adjacently to even-numbered pixels of the second pixel row, respectively. A first CCD register is arranged adjacently to the second transfer gates and third transfer gates. Fourth transfer gates are arranged adjacently to odd-numbered accumulation gates of the first CCD register. A second CCD register is arranged adjacently to the fourth transfer gates. An output portion converts transferred charges into a voltage signal. A clear gate controls draining of the charges accumulated in the first pixel row to a first drain portion. A switch gate controls draining of charges transferred in a row direction in the second CCD register to a second drain portion.

Abstract: An optical scanning endoscope with an optical fiber, and a fiber driving unit with a plurality of actuators which bend side surfaces of the optical fiber by applying a pressing force. A mounting member is a substantially cylindrical MID component which supports the fiber driving unit. A control circuit supplies driving signals to each of the actuators to control the bending amount and direction of the optical fiber. A wiring member electrically connects wiring patterns on the mounting member with the control circuit. The mounting member has a planar surface section at one proximal-end-surface side of the cylindrical outer-peripheral surface. The wiring patterns include at least first patterns having one end portion disposed on the planar surface section to form soldering lands The other end portions are electrically connected to the actuators on the proximal-end surface of the mounting member. The wiring member is connected to the soldering lands.

Abstract: In one embodiment, a Sagnac interferometer-type fiber-optic sensor includes a synchronous detection circuit to carry out synchronous detection of detected light signal with a phase modulation angular frequency of a phase modulator. A signal processing circuit calculates and outputs the magnitude of current to be measured using the signal detected in the synchronous detection circuit. A phase modulator driving circuit controls the driving of the phase modulator. The phase modulator driving circuit controls a phase modulation depth of the phase modulator so that the amplitude of the second-order harmonics and the fourth-order harmonics obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency becomes the same.

Abstract: In one embodiment, a Sagnac interferometer-type fiber-optic sensor includes a synchronous detection circuit to carry out synchronous detection of detected light signal with a phase modulation angular frequency of a phase modulator. A signal processing circuit calculates and outputs the magnitude of current to be measured using the signal detected in the synchronous detection circuit. A phase modulator driving circuit controls the driving of the phase modulator. The phase modulator driving circuit controls a phase modulation depth of the phase modulator so that the amplitude of the second-order harmonics and the fourth-order harmonics obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency becomes the same.

Abstract: A polarizing optical system (15, 16) is disposed perpendicular to an optical axis of incoming light from a light source (12), having the optical axis (12) as a center axis, and configured for polarization of incoming light to a prescribed reference state, an electro-optical device (17) is disposed perpendicular to the optical axis, having the optical axis as a center axis, and adapted, as a voltage to be measured is imposed thereon, to respond to the imposed voltage by polarizing light polarized by the polarizing optical system (15, 16), and an analyzer (18) is disposed perpendicular to the optical axis, having the optical axis as a center axis, and adapted for detection of light polarized by the electro-optical device (17), to irradiate a detector (21) configured for conversion of incoming light into an electric signal.

Abstract: A semiconductor device includes: a semiconductor substrate; a first interlayer insulating film formed over the semiconductor substrate; a pad formed above the first interlayer insulating film; and a plurality of first interconnects spaced apart from each other in a portion of the first interlayer insulating film located below the pad. Below the pad, the first interconnects are formed in quadrangular plan shapes.

Abstract: A sliding bearing 5 is composed of a pair of halved bearings 11, 12 and is provided with crush reliefs 11E, 12E in positions adjoining abutment surfaces 11B, 12B of these halved bearings. Chamfered portions 11D, 12D are formed in inward edge portions of the above-described abutment surfaces 11B, 12B, and a dust pocket 15 is formed on the middle side of the chamfered portions 11D, 12D. The relative angle ? formed by the above-described crush reliefs 11E, 12E with sliding surfaces 13 in positions adjoining the crush reliefs 11E, 12E is set at 0.69° or more.

Abstract: Electrode pads respectively have a probe region permitting probe contact and a non-probe region. In each of the electrode pads arranged zigzag in two or more rows, a lead interconnect for connecting another electrode pad with an internal circuit is not placed directly under the probe region but placed directly under the non-probe region.

Abstract: In an embodiment, each of first and second pixel rows has pixels. A first transfer gate is arranged between the first and second pixel rows. Second transfer gates are arranged adjacently to odd-numbered pixels of the second pixel row, respectively. Third transfer gates are arranged adjacently to even-numbered pixels of the second pixel row, respectively. A first CCD register is arranged adjacently to the second transfer gates and third transfer gates. Fourth transfer gates are arranged adjacently to odd-numbered accumulation gates of the first CCD register. A second CCD register is arranged adjacently to the fourth transfer gates. An output portion converts transferred charges into a voltage signal. A clear gate controls draining of the charges accumulated in the first pixel row to a first drain portion. A switch gate controls draining of charges transferred in a row direction in the second CCD register to a second drain portion.

Abstract: Disclosed in an operation display apparatus including: a display unit; a touch panel to detect a touch position on which a display face of the display unit is touched; and a control unit to control display contents of the display unit and to switch a specific area provided in a part of the display face, between an operable state in which display of information and a detection of a touch action for the touch panel are operated and a non-operable state in which the display and the detection are not operated, wherein the control unit sets a part of the specific area, which is arranged in a boundary with another operation display apparatus disposed with the operation display apparatus side by side, to the operable state.

Abstract: A semiconductor device includes: a semiconductor element (1) having an internal circuit (17); and electrode pads (22, 22, . . . ) provided for the semiconductor element (1). The electrode pads (22, 22, . . . ) are electrically connected to the internal circuit (17) via control portions (31) for controlling electrical connection between the electrode pads (22, 22, . . . ) and the internal circuit (17).

Abstract: In a bearing device 1, annular recesses 3a and 6a that house a thrust bearing 7 are formed in side surfaces of a housing 3 and a cap 6, a rotation preventing protrusion 12b is provided in an outer periphery of a lower side half-split thrust bearing 12 in the thrust bearing 7, and a rotation preventing groove 6b into which the rotation preventing protrusion 12b fits is formed in the annular recess 6a formed in the cap 6.

Abstract: A sliding bearing is constructed by an upper split bearing half and a lower split bearing half. The upper split bearing half has a sliding surface, in which an oil groove which allows a lubricating oil to flow therein is formed over the entire circumferential extent of the sliding surfaced. The oil groove extends through a crush relief to be open to a junction area, and the oil groove has a bottom which is formed so that a portion disposed toward the junction area as considered in the circumferential direction of the crush relief is located closer to the center of the upper split bearing half in comparison to a central portion. An ingress in large quantities of foreign particles within the oil groove onto the sliding surface of the sliding bearing and into a connecting rod bearing after passing through a lubricating oil feed passage is suppressed, and an oil leakage through the crush relief is reduced, allowing a lubricating oil pressure to be secured and augmented.