Abstract: A lighting device having a housing incorporating an electrical circuit, a light source and a source of power with a gravity controller. The gravity controller regulates the power applied to the light source in response to the relationship between the position angle and the tilt angle of the lighting device with respect to the vertical. The lighting device has a storage orientation wherein the light source is non-energized and a transporting or use orientation wherein the light source is energized. A plurality of lighting devices are mounted on a storage bracket in a non-energized orientation. A plurality of lighting devices are mounted on a carrier having a changeable orientation, wherein the lighting devices are energized during transporting and non-energized during storage.

Abstract: A headlamp having a selectable beam is provided. The headlamp having the selectable beam is configured such that a low beam and a high beam are selectable, and the headlamp includes a first lamp section which forms a low-beam light distribution pattern if the low beam is selected; a second lamp section which forms a high-beam light distribution pattern if the high beam is selected; and a control unit which controls the second lamp section based on an inclination angle of a body on which the headlamp is mounted.

Abstract: This invention relates to a lighting module (101) comprising a carrier (103), a plurality of LED groups (109), arranged in an array on the carrier (103), a mesh (105), arranged at the carrier (103), and a front diffuser plate (107) arranged in front of the mesh (105). The mesh (105) has walls, which are arranged in a geometrical pattern forming a plurality of cells (113), such that the light emitted from at least some of the LED groups, which are adjacent to each other, is mixed before passing the diffuser plate.

Abstract: Systems and methods which provide a versatile lighting module which may be utilized alone or in combination with other lighting modules to provide any number of lighting unit configurations are shown. Lighting modules of embodiments herein are adapted to facilitate electrical connection, whether to one or more power supply and/or to one or more other lighting module, along any portion of the entire periphery of the lighting module. Accordingly, lighting modules may be coupled together in any orientation, geometry, and topology to cooperate as a light source having various desired characteristics according to embodiments herein.

Abstract: A lighting apparatus is mounted to a lower end of a front fork that supports a front wheel via a bearing portion. The lighting apparatus has a housing, an upper surface of which includes a bottom case receiving surface formed thereon. The bottom case receiving surface is shaped so that an outer periphery of a bottom case can fit therein. A rubber sheet is placed between the bottom case and the bottom case receiving surface to offer vibration isolation property. A bolt is screwed into a threaded hole in the bottom case so as to penetrate through a mounting portion having the bottom case receiving surface, so that the lighting apparatus is secured to the bottom case.

Abstract: A decorative roof light covering system includes a roof overhang that is attached to and extends downwardly from a roof. The roof overhang has a bottom edge, a first side and a second side. A plurality of decorations is attached to the bottom edge of the roof overhang. A cover includes a bottom wall that has a top side, a first lateral edge and a second lateral edge. A first lateral wall is attached to and extends along the first lateral edge. A second lateral wall is attached to and extends along the second lateral edge. Each of the first and second lateral walls extends upwardly from the top side. A coupling assembly is attached to the roof overhang and releasably couples the cover to the roof overhang. The cover is attached to the roof overhang when the decorations are to be hidden from view.

Abstract: A lighting module includes a light source, a heat sink, a case, and a fan. The light source has a light emitting surface and a bottom surface opposite thereto. The heat sink is disposed at the bottom surface of the light source and includes a heat sink mass having a heat dissipation surface, wherein the heat dissipation surface is opposite to the bottom surface. The case is disposed to the heat sink and has a module airflow inlet and a module airflow outlet. The fan is disposed to the case or the heat sink for driving airflow to sequentially pass through the module airflow inlet, the heat sink, and the module airflow outlet. The case is capable of making the flowing direction of the airflow passing the module airflow outlet the same as the light emitting direction of the light emitting from the light emitting surface.

Abstract: A display including a light source for generating light, an optical waveguide for receiving and evenly distributing light in a light propagation direction by total internal reflections and a matrix of electromechanical picture elements for modulating light to produce an image.

Abstract: A backlight assembly includes a plurality of lamps, a multi-plate diffusion member, optical sheets and a receiving container. The lamps have a rod shape extended in a first direction, and are arranged along a second direction that is substantially perpendicular to the first direction. The diffusion member is disposed above the lamps and has at least two optical plates. Each of the optical plates includes a plurality of optical patterns on a surface facing away from the lamps. The optical patterns are extended in the first direction and aligned along the second direction. The optical sheets are disposed above the diffusion member to improve optical characteristics of passed through light. The receiving container includes a reflective bottom plate and a sidewall formed on an edge of the bottom plate to receive the lamps, the diffusion member and the optical sheets.

Abstract: An illumination device includes an adjusting apparatus including a gear wheel element and a rotation element rotatably connected to the gear wheel element. A support portion is configured for supporting the adjusting apparatus, and comprises at least a driving pole which is moveable. At least one pair of illumination portion is rotatably connected to the adjusting apparatus via the two opposite sides of the gear wheel element. The rotation element is rotatably connected to the at least one driving pole. When at least one driving pole is driven to move up or down relative to the support portion, the gear wheel element is driven to rotate relative to the rotation element by the at least one driving pole, thereby driving at least one illumination portion to rotate.

Abstract: The present invention provides an illumination module comprising one or more light-emitting elements which are thermally coupled to one or more heat extraction elements. The one or more heat extraction elements are configured to transfer heat in substantially a first direction. One or more optical elements are further integrated into the illumination module, wherein the one or more optical elements are optically coupled to the one or more light-emitting elements and configured to redirect the light emitted by the one or more light-emitting elements in substantially the first direction.

Abstract: A backlight unit is provided that, for a case where on a mounting board on which a plurality of point light sources are mounted, an electronic component other than those point light sources is mounted, can reduce the occurrence of uneven luminance, with no increase in the size of the backlight unit. This backlight unit (10) is provided with a PWB (6) having at least an LED mounting region (6a) extending along a side surface (3a) of a light guide plate (3). The LED mounting region (6a) of the PWB (6) is, at an end portion thereof on one side, provided with an FPC mounting region (6b) and is, at an end portion thereof on the other side opposite to the one side, provided with a capacitor mounting region (6c) extending along a side surface (3b) perpendicular to the side surface (3a) of the light guide plate (3).

Abstract: A light pen includes a case, a light source, a pen-nib structure, a first lens device, an elastic piece, a hollow knob, and a linkage pipe. The pen-nib structure is disposed through the case. The first lens device is disposed between the light source and the pen-nib structure. The elastic piece is connected to the first lens device. The hollow knob rotatably sheathes the first lens device. The linkage pipe sheathes the first lens device and is connected to the hollow knob for driving the elastic piece to move away from the pen-nib structure when the hollow knob rotates to a first position, so that the pen-nib structure can move relative to the case. The linkage pipe is further used for being separate from the elastic piece when the hollow knob rotates to a second position, so that the elastic piece can be engaged with the pen-nib structure.

Abstract: Disclosed herein is a backlight device. The device includes: a light emitting element; a lens having an incident surface on which light emitted by the light emitting element is incident, and an outgoing surface which has an ability to converge the light and from which the light incident on the incident surface goes out; a light guide plate having a light incidence plane and introducing through the incidence plane the light going out from the outgoing surface, so as to perform surface light emission; and a reflective member operative to reflect a portion of the light going out from the outgoing surface of the lens, toward the incidence plane of the light guide plate.

Abstract: A planar lighting device comprises: a light guide plate including a concave rectangular light exit plane, two light entrance planes containing two opposite sides of the light exit plane and disposed opposite each other, two symmetrical inclined planes opposing to the light exit plane such that their distance from the light exit plane increases with the increasing distance from the two light entrance planes toward the center of the light exit plane, a curved portion connecting the two inclined planes; two light sources respectively disposed opposite the two light entrance planes for emitting light to enter the light into the light guide plate through the light entrance planes; and sliding mechanisms allowing the light sources to slide in a direction parallel to the light entrance planes of the light guide plate to absorb the expansion and contraction of the light sources along the length thereof.

Abstract: A fixed base comprises an upper cover comprising an outer canister a top plate and a sidewall. The sidewall encircles the top plate to form a receiving room. An inner canister penetrates the receiving room and is attached to the top plate, which comprises a wall. At least one hatch is defined in the wall, and is connected to the receiving room. A positioning component is set inside the surface of the top plate. A limitation frame comprises a frame body, a connecting block, and a positioning block. The positioning block is slidably connected to the positioning component. At least one groove opposite the hatch is defined in the wall of the frame body, and comprises a sliding groove and a fixing groove connecting with the sliding groove. The fixed base further comprises a driver and a trigger switch.

Abstract: The illumination system has an array of light sources (1, 1?, . . . ) such as an array of light emitting diodes arranged in a pre-determined manner in a first plane (11), wherein dsource is a characteristic dimension of the spatial arrangement of the light sources in the first plane. An array of associated lenses (2, 2?, . . . ) is arranged in substantially the same pre-determined manner in a second plane (12). Each lens has substantially the same focal distance flens. The array of lenses is provided at a plane distance dplane from the array of light sources. The plane distance dplane is substantially equal to the focal distance flens of the lenses. The illumination system has displacement means for displacing the array of lenses with respect to the array of light sources so as to obtain a plurality of directional light beams projecting spots on a projection plane arranged at a projection distance dprojection from the illumination system, wherein dprojection?10×dsource and dprojection?10×dplane.

Abstract: Provided is a wavelength conversion plate having excellent luminous efficiency of a wavelength-converted light. The wavelength conversion plate includes a dielectric layer with nano pattern, a metal layer formed inside the nano pattern, and a wavelength conversion layer formed on the metal layer and having quantum dot or phosphor which wavelength-converts an excitation light to generate a wavelength-converted light.

Abstract: An interior lighting system for a security safe is taught which incorporates a power supply that is located within the safe and converts alternating current power to low voltage direct current. An electrical switch is in communication with the power supply and mechanically interfaces with the safe door boltworks which energize the lighting system when the safe door is unlocked and opened. A number of LED lights are disposed within the door edge and connected to the switch. When the door is hinged open the LED lights are energized through the switch and illuminate the interior of the safe until the door is closed and bolted.

Abstract: A backlight module including a circuit board, at least one first light emitting diode (LED) device, at least one second LED device, and a reflection device is provided. The first and second LED devices are disposed on a carrying surface of the circuit board and electrically connected to the circuit board. The brightness of the first LED device is greater than that of the second LED device. The reflection device is disposed on the circuit board and exposes the first and second LED devices. The reflection device has at least one first reflection region disposed around the first LED device and at least one second reflection region disposed around the second LED device. The reflection ratio of the first reflection region opposite to the light-emitting energy of the first LED device is smaller than that of the second reflection region opposite to the light-emitting energy of the second LED device.