Abstract: The exemplary embodiment is for an architecture integrated in a generic System on Chip (SoC) and consisting of reconfigurable coprocessors for executing nested program loops performed in a functional unit array in parallel. The data arrays are accessed from one or more system inputs and from an embedded memory array in parallel. The processed data arrays are sent back to the memory array or to system outputs and enable the acceleration of nested loops. The coprocessors are connected either synchronously or using asynchronous first in first out memories (FIFOs), forming a globally asynchronous locally synchronous system and each coprocessor can be programmed by tagging and rewriting the nested loops in the original program and produces a coprocessor configuration per each nested loop group, which is replaced in the original code with coprocessor input/output operations and control.

Abstract: A lighting device with a stable high light intensity can effectively dissipate heat generated by an LED so that the light emission efficiency does not deteriorate while the inside temperature distribution can be maintained in an even state. The lighting device can also be configured to prevent snow from adhering onto an outer lens by allowing an outer surface temperature of the lighting device to rise during actuation of the device. The lighting device can also be configured to improve light utilization efficiency. The lighting device can include a semiconductor light emitting device as a light source and can include structure(s) that guides the emission light to a projection lens. The semiconductor light emitting device can be configured to emit light in a reverse or opposed direction with respect to an illumination direction for the lighting device. A projection lens can be disposed in front of the semiconductor light emitting device.

Abstract: A vehicle light can prevent the generation of glare light due to the reflection of light from a connecting surface surrounding a reflecting surface when a lens body including the reflecting surface and the connecting surface surrounding the reflecting surface is used and light emitted from an LED light source enters the lens body. The vehicle light can include a light source and a lens body. The lens body can include optical surfaces including the reflecting surface configured to form a predetermined light distribution pattern, and connecting surfaces that shape and define a structure of the lens body by connecting the optical surfaces, but that do not engage in the formation of the light distribution pattern. The connecting surface surrounding the reflecting surface can reflect part of incident light from the light source to a direction that is different from the direction by the reflecting surface and is directed to any one of connecting surfaces.

Abstract: A vehicle reflector can include a plurality of retroreflection elements including a first reflection surface, a second reflection surface, and a third reflection surface which are adjacently disposed to form a corner portion of a substantially regular hexahedron. The first reflection surface can be inclined by 35.264°+angle ?1 with respect to a reference axis. The second reflection surface can be inclined by 35.264°+angle ?2 with respect to the reference axis and can be disposed at a position rotated by 120° about the reference axis from the first reflection surface. The third reflection surface can be inclined by 35.264°+angle ?3 with respect to the reference axis and can be disposed at a position rotated by 120° in an opposite direction from the second reflection surface about the reference axis from the first reflection surface. The angle ?1, angle ?2 and angle ?3 can be set to satisfy a relation of ??1=?2=?3 or ??1??2=?3.

Abstract: A small-sized lighting device can achieve wider light distribution patterns. The lighting device can include a semiconductor light emitting element configured to emit light from a first face and a second face thereof. A mounting substrate can be provided on which the semiconductor light emitting element is mounted. Light emitted from the second face can transmit through the mounting substrate, and a first optical system can be provided and configured to impart a first light distribution pattern to the light emitted from the first face of the semiconductor light emitting element. A second optical system can be provided and configured to impart a second light distribution pattern to light emitted from the second face of the semiconductor light emitting element.

Abstract: A vehicle light can simultaneously form a light distribution pattern for a tail/stop lamp in one direction and another light distribution pattern for a side marker lamp in another direction without use of a dedicated light source(s). The vehicle light can include: a cover lens having a lens portion and a wraparound lens portion extending from the lens portion to the vehicle side face; a first LED light source configured to form first and second light distribution patterns; and a first reflector configured to reflect a first part of light from the first LED light source so as to form the second light distribution pattern. The first LED light source can be disposed so that a second part of the light from the first LED light source passes through the wraparound lens portion to form the first light distribution pattern. The first reflector can be disposed between the first LED light source and the wraparound lens portion so that the first reflector does not block the second part of the light.

Abstract: The disclosed subject matter includes reliable semiconductor light-emitting devices having a favorable light distribution using an LED chip, which can emit light having a different color as compared to that emitted directly by the LED chip. The semiconductor light-emitting device can include an LED chip having an electrode, a phosphor layer located on the LED chip except for the electrode, a bonding wire connected to the electrode, and a light-reflecting resin. The light-reflecting resin can be disposed on a light-emitting surface that is exposed around the electrode and on the electrode including the bonding wire, and can prevent the LED chip from exhibiting a leak of light that is not wavelength-converted via the phosphor layer, while increasing light that passes through the phosphor layer. In addition, the light-reflecting resin can protect the bonding wire from vibration, etc.

Abstract: A projector type vehicle light is provided that can reduce temperature increase of a solenoid due to heat generated by a light source, while a shade and a projection lens can be disposed closer to each other. The vehicle light can be formed as a headlight and can include a light source, a reflector, a shade, and a projection lens. The projector type vehicle light can further include a shade rotational shaft extending in a left-to-right direction, a base member configured to support the shade so that the shade can rotate around the shade rotational shaft, a solenoid for making the shade rotate between a low-beam position and a high-beam position, and a crank shaft configured to connect the solenoid with the shade for driving. The solenoid can be disposed just below the shade so that a moving direction of the plunger of the solenoid is aligned with the left-to-right direction of the projector type vehicle headlight.

Abstract: The disclosed subject matter includes a projector headlight using a plurality of optical units for a low beam with a high visible/visual quality. Each of the optical units can include a plurality of LED devices and a projector lens. The projector lens can include a light-emitting surface including a reflex function and a reflex surface including a light incoming surface that is located on the opposite side of the light-emitting surface. The LED devices can be located adjacent the light incoming surface, and the optical units can be located so that angles between optical axes of adjacent optical units can become substantially a same angle. Thus, the projector headlight can form various favorable light distribution patterns by changing curvature factors of the light-emitting surface and the reflex surface of the projector lens in each of the optical units and by changing the angles between the optical axes of the adjacent optical units.

Abstract: According to an aspect of the present invention, there is provided a nailing machine, including: a drive unit that drives a blade to strike a nail; a blade guide that includes a guide groove to guide the blade; a guide plate that is attached on the blade guide to cover the guide groove; and a magazine that is held with respect to the blade guide and that feeds a nail to the guide groove, wherein the nailing machine further includes a blade fixing unit that limits a movement of the blade when the guide plate is detached.

Abstract: A catheter for a coronary artery can include a distal end for being introduced into an opening of a coronary artery from an artery of an arm. The catheter can, include a catheter main body including a main body portion having a substantially linear shape in a natural state and a curved portion forming a portion extending from the main body portion to the distal end and having a curved shape in a natural state. The curved portion can include a first curve extending in a curved state from the main body portion, an intermediate portion extending from the first curve, a second curve extending from the intermediate portion and curved in a direction same as that of the first curve, and an extreme distal end portion of a substantially linear shape extending from the second curve. A method of using the catheter is also disclosed.

Abstract: An optical axis adjusting apparatus and vehicle light include a lamp housing and a reflector. The optical axis adjusting apparatus includes a ball joint via which the lamp housing and the reflector are connected, an aiming screw, a nut portion, and a support member. The nut portion is screwed onto the aiming screw and the support member is fit onto the aiming screw.

Abstract: A method and device to transcode H.264/AVC video frames into MPEG-2 can include converting the H.264/AVC interframe coding modes into modes allowed by MPEG-2 and converting H.264/AVC motion information into corresponding MPEG-2 semantics, and determining a most suitable motion vector for each MPEG-2 macro-block, on the basis of motion vectors of reference frames and sub-blocks of a H.264/AVC macro-block corresponding to the MPEG-2 macro-block.

Abstract: A vehicle light can electrically change over between a horizontally wide light distribution pattern and an AFS suitable light distribution pattern for projecting light beams leftward (or rightward according to the traffic system). The vehicle light can include a projection lens having a light incident surface and a light exiting surface; and a horizontally long rectangular surface light source including a plurality of semiconductor light emitting devices that are horizontally disposed on both sides with respect to a focus of the projection lens and are independently controlled to be turned on/off. The projection lens can vertically converge and horizontally diffuse light beams for projection.

Abstract: An apparatus and system for electromotively coating a part can include a conveyor that has a plurality of hangars that are configured to be positively connected to respective parts that are to be coated. An attachment mechanism can be provided on the hangar and the part, the attachment mechanism being configured to exert force in more than a single direction. The part can be a conductive plastic part and can include an attachment structure that is formed thereon, for example, screw threads integrally formed in the part. The hangar can include a similar fastener that is configured to connect to the attachment structure of the part. For example, the fastener of the hangar can be a screw thread that mates with threads integrally or otherwise formed on the part.

Abstract: A breast-milk pad can be produced relatively easily, such that it reduces an uncomfortable sensation to the skin surface of a user, and has excellent shape retention properties. A method for producing the breast-milk pad is also disclosed. The breast-milk pad can include a material that is made up by stacking: a back sheet that prevents permeation of liquid; a top sheet that contacts the body; and an absorber that is disposed between the back sheet and the top sheet. The top sheet and the back sheet are bonded to each other in an outer peripheral portion. Cutout portions obtained by cutting the absorber can be formed in positions facing each other at the outer peripheral portion such that cutout width of each of the cutout portions gradually narrows down inwardly.

Abstract: The disclosed subject matter is directed to solid state cameras and sensor systems that include a pickup surface thereof with both a distance detecting area for measuring a distance from a moving object and a movement detecting area for detecting the object's movement. The device can also include an optical communication area for communicating with an outside communication device. Therefore, the device enables a single pickup surface to include at least the following three functions: distance measurement; movement detection; and optical communication. The above-described sensor systems can output a control signal for collision avoidance with stationary or moving obstacle(s) by using the solid state camera. Because the sensor system can be integrated as a single chip IC with a small size, the system is useful as a sensor device in a vehicle, a robot, and the like.

Abstract: In an optical semiconductor device module constructed by an optical semiconductor device having a light emitting portion on its top surface, a mounting substrate adapted to mount the optical semiconductor device thereon, at least one wiring pattern layer formed on a front surface of the mounting substrate, and at least one power supplying portion in contact with the wiring pattern layer, at least one of the power supplying portion and the wiring pattern layer is uneven.

Abstract: A reliable semiconductor light-emitting device and a method for manufacturing the same can be provided in which peeling can be prevented in a phase boundary, and optical axis positional errors between the optical lens and a semiconductor light-emitting chip can be reduced or prevented. The semiconductor light-emitting device can include a base board having at least one chip, a reflector fixed on the base board so as to enclose the chip, and an encapsulating resin disposed in the reflector. An optical lens can include a concave-shaped cavity that has an inner corner surface having a plurality of convex portions thereon. The optical lens can be located adjacent the reflector by contacting the lens with a top surface of the reflector so as to enclose the reflector. A spacer that is disposed between the concave-shaped cavity and the reflector can ease a stress that is generated due to temperature changes.

Abstract: A telescoping gate can include a frame, a primary gate member connected to the frame in a manner such that the primary gate member can move relative to the frame, and a secondary gate member that is moveable with respect to both the primary gate member and the frame. The primary gate member can include at least one side wall, a top wall extending at an angle from a top of the side wall, and a bottom wall extending at an angle from a bottom of the side wall to create a cavity between the bottom wall, side wall and top wall. The secondary gate member can be located in the cavity of the primary gate member and configured to move relative to the primary gate member and the frame within that cavity. The bottom wall of the primary gate member includes a first roller/rail structure and the secondary gate member includes a bottom wall having a first roller/rail structure configured to mate with the first roller/rail structure of the primary gate member bottom wall.