Abstract: An outlet guide vane assembly for turbomachines is provided. The outlet guide vane assembly comprises one or more outlet guide vanes, wherein each of the one or more outlet guide vanes comprises a first surface and a second surface, and wherein the one or more outlet guide vanes are disposed between an inner wall and an outer wall of an engine and a surface cooler layer disposed on at least a portion of the first surface, the second surface, or both of the one or more outlet guide vanes, wherein the surface cooler layer comprises a metal foam, a carbon foam, or a combination thereof, wherein the metal foam, the carbon foam or the combination thereof is configured to augment heat transfer and enhance acoustic absorption.

Abstract: A light gathering module (10) has a body (12) with a first end (14) comprising a single light transmitting surface (16) and a second end (18) having a plurality of arms (20), each arm (20) having an independent light gathering terminus (22) that is rectangular. In a preferred embodiment of the invention, the first end (14) of the body also is rectangular. The light gathering module (10) can be fabricated from acrylic, plastic, glass or other suitable material and preferably has no cladding so that light output I maximized. When combined in a housing (32) with a projector lens (34) the light gathering module (10) provides a vehicle headlamp (30).

Abstract: A solid-state light source (10) comprising a plurality of LED units (12) arrayed to emit light generally about an axis (14). Each of the LED units (12) can comprise a number of LEDs, for example, up to five. They may all emit in a single color or multiple colors can be combined for a specific effect. A light transmissive light guide (16) is associated with the LED units (12) and has a plurality of input widows (18). Each LED unit (12) faces a respective input window (18) and each window (18) transversely intercepts the axis (14) and receives light from the LED units (12). The input windows (18) lead to a common output window (20) that is axially aligned with the input windows (18). The light guide (16) has smooth sidewalls (22) that extend between the input windows (18) and the output window (20).

Abstract: A wing cover panel assembly, wing cover and method of forming thereof are disclosed in which an attachment surface of the wing cover panel is provided with a locating channel into which a wing structural element such as a stringer or spar is captured so as to fix the wing structural element to the wing cover panel.

Abstract: Embodiments are provided for displaying components for visually designing logical structures or macros. In one embodiment, a logical surface component is displayed which may include a design surface. The design surface may be utilized to display data which make up one or more macros. The design surface may be selected for receiving macro data. The received data, which represents a macro design, may then be displayed in the design surface on a display device. In another embodiment, controls for navigating within logical surface components utilized for designing macros may be displayed on a display device. A logical surface component which includes a hierarchical grouping of macro actions may be displayed. One more actions may be selected and an instruction may be received in a visual interface to move selected actions among the hierarchical grouping. In response to receiving the move instruction, the selected actions which were moved may be displayed.

Abstract: An automotive headlamp bulb provides the two light or three filament sources in a single bulb. One source may be used to generate a standard headlamp beam, while the second source may be used to generate an augmenting side beam in response to a turning signal. A similar third filament may provide an augmenting beam to the opposite side, or farther to the same side. The single bulb eliminates the need for a second bulb, or a second reflector in an advanced headlamp system with turning light augmentation.

Abstract: A vehicle light (10) that can be used, for example, in a headlamp assembly (25) for a headlight projection system for use with forward illumination, comprises a reflector (12) and a light source (14) operatively mounted with the reflector (12). Preferably, the light source (14) is a filamented, tungsten halogen lamp capsule providing visible radiation and IR radiation and the reflector (12) is elliptical. The headlamp assembly (25) is mounted in a housing (27). A lens (16), such as an aspheric projector lens, directs the visible and IR radiation emanating from the light source (14) toward a field (18) to be illuminated and a shutter (20), which provides the cutoff for the low beam, has a position (22) between the light source (14) and the lens (16). The shutter (20) is transparent to the IR radiation and opaque to the visible radiation and is moveable into and out of the position (22) between the light source (14) and the lens (16), for example, by actuation of a solenoid (23).

Abstract: A fan shroud assembly includes a fixed fan shroud and a removable fan shroud. An upper retention system integral with the fixed and removable fan shrouds secures the two circumferential ends of the removable fan shroud to the fixed fan shroud. A lower retention system integral with the fixed and removable fan shroud secures the center of the removable fan shroud to the fixed fan shroud. No additional fasteners are required to connect the removable fan shroud to the fixed fan shroud because of the integral nature of the upper and lower retention systems.

Abstract: A vehicle light assembly may be made from a lamp having a plurality of LED light sources arrayed circumferentially around the lamp; a reflector body having a reflector axis generally directed to a field to be illuminated. A plurality of reflective surfaces is formed on the front side, the respective reflective surfaces separated by one or more axially extending walls. A through passage is formed in the reflector body, sized and shaped to receive a portion of the lamp, and intersecting a planar extension of at least one of the axially extending walls separating a first reflective surface from a second reflective surface. The planar extension intersects the lamp between a first LED and a second LED whereby light form the first LED substantially shines toward the first reflective surface and the light from the second LED shines toward the second reflective surface.

Abstract: A cutting assembly is provided that is adapted for use in combination with a container for dispensing a web of material. The dispensing container includes a plurality of adjoining sidewalls which define an external geometric profile. The cutting assembly includes a guide disposed in combination with a sidewall of the container and a cutter adapted for traversing within the elongate guide in a desired cutting direction. Furthermore, guide and bearing surfaces, formed on the guide and cutter, respectively, cooperate to permit sliding motion therebetween in the cutting direction and interlock to delimit displacement of the cutter relative to the guide in directions orthogonal to the cutting direction. A portion of the guide and cutter is disposed proximal to a corner of the container and recessed relative to its external geometric profile to facilitate container storage and display while additionally producing an aesthetically pleasing appearance.

Abstract: A walking aid device for assisting a user to walk by presenting a true 3-D obstacle that is automatically activated during normal use of a cane or walking support, to which the device is attached proximal to the floor end, and during use when in an extended position is non-parallel to the floor surface, is perceived by the user to be an obstacle over which the foot on the same side of the user's body must step. A method of use providing for attaching the device to the cane or walking support and using it in a cycle that produces a walking-type motion for the user.

Abstract: Optoelectronic devices are described that include: a) a surface within the device, and b) at least one sufficiently light-transmissive crosslinked film, wherein the film is formed from at least one silicon-based material, at least one catalyst, and at least one solvent. Optoelectronic device are also disclosed, which include: a) a surface within the device, and b) at least one light-transmissive crosslinkable composition, wherein the composition comprises at least one silicon-based material, at least one crosslinking agent and at least one solvent. Methods of producing optoelectronic devices are also disclosed that include: a) providing a surface, b) providing at least one sufficiently light-transmissive crosslinkable composition, wherein the composition comprises at least one silicon-based material and at least one catalyst, c) applying the crosslinkable material to the surface, and d) curing the crosslinkable material to form a sufficiently light-transmissive crosslinked composition.

Abstract: The multi-color light lamp has a base divided into a plurality of segments. The three segments are spaced at 120 degrees. More or less segments can be used. An LED is positioned in each segment, the LED in each segment emits a color distinct from the light emitted by the LEDs in the other segments. If the lamp is to be used for automotive purposes, the LED in a first segment emits red light as a taillight and a stop light, the LED in a second segment emits yellow light a turn signal lamp, and the LED in the third segment emits white light as a backup light. A light pipe is operatively associated with the LEDs in each segment for directing emitted light away from the base. The LEDs (preferably two per segment) are mounted upon a thermally efficient printed circuit board such as a flex-on aluminum board.

Abstract: A vehicle headlamp (10) has a first light source (12) for illuminating an area forward of the light source (12). The first light source (12) is preferably a filamented tungsten halogen capsule or an arc discharge source. The first light source (12) is arrayed along a longitudinal axis (14) and emits substantially white light. A second light source (16) in the form of a plurality of light emitting diodes is arrayed about the first light source (12), and the second light source (16) emits light via an optic 42 for providing a daylight running light. Via the optic 42 light is emitted in a forward direction as well as toward the reflector to increase the lighting area.

Abstract: A lamp component has a support with a base surrounded by an interior wall defining a cavity with a central axis. A plurality of LEDs are supported on the interior wall and generally aimed to direct light towards the central axis. A center piece has a first reflective surface shaped and positioned to intercept light received from the LEDs and reflect such received light generally in a direction parallel to the axis.

Abstract: A container is provided for dispensing selected portions of a web material retained on a roll. The container includes a substantially hollow dispenser tube, a track-guided cutting assembly and end caps securing the dispenser and track structure. The dispenser has an elongated opening in a portion of the side wall thereof. The end caps include a groove substantially corresponding to the profile shape of the dispenser, a projection substantially corresponding to the inner diameter of the roll, and a cutter track holder to secure the cutting assembly adjacent the opening in the dispenser.

Abstract: An LED lamp (10) having a substantially concave heat sink (12) having a raised, frusto-conical center (14) surrounded by an outer rim (16). The heat sink (12) is preferably aluminum or other metal and at least the frusto-conical center preferably has a reflective coating. To further aid in heat removal the outer rim (16) can be provided with a plurality of apertures (16a). A side-emitting LED (18) is mounted on the frusto-conical center (14). A cover (26) is fixed to the outer surface (22) and defines a volume (28) between the frusto-conical center (14) and the cover (26). A circuit (30) is located within the volume (28) and an electrical connection (32) provides connection to the LED (18). In another embodiment a cover (26a) is provided with studs (54) and a reflector (42a) is provided with studs (56) that engage barbs (50) formed in a heat sink (12a).

Abstract: A screwdriver for use in orthopaedics to install a screw into bone with a power tool is provided. The screwdriver includes an expandable connector cooperable with the screw for holding the screw to the expandable connector. The screwdriver also includes a drive connector for connecting the screwdriver to the power tool and an actuator. The actuator is operably connected to the expandable connector for actuating the expandable connector. The actuator is at least partially connected to the drive connector while the actuator actuates the expandable connector.

Abstract: A tool driver for use in orthopaedics to install an implant into bone with a power source is provided. The tool driver includes an expandable connector cooperable with the implant for holding the implant to the expandable connector. The tool driver also includes a drive connector for connecting the tool driver to the power source. The tool driver further includes an actuator operably connected to the expandable connector for actuating the expandable connector. The actuator is at least partially connected to the drive connector while the actuator actuates the expandable connector.