Abstract: A lens has a first, second and third optical region. The first, second and third optical region are arranged in sequential order. Space angle defined between each first, second and third optical region, and an optical axis of the lens are different from each other. An LED light module, which has an LED chip and the lens is also provided. The light emitted from the LED chip passes the reflecting surface and refractive surface and radiates from a top of the lens.

Abstract: A projection lens is disposed so that light emitted from a light source passes the projection lens. A shade is disposed in rear of the projection lens so as to block a part of the light emitted from the light source. The projection lens includes a first region and a second region. The first region has a first light scattering property. The second region has a second light scattering property lower than the first light scattering property. The shade and the projection lens are disposed so that a part of light projecting an edge of the shade as a peripheral edge of a light distribution pattern passes through the first region and another part of the light projecting the edge of the shade passes through the second region.

Abstract: A lens for distributing light from a light emitter in a desired asymmetric illumination profile includes a lens body having an input side and an output side. The input side receives light from an emitter, and the output side includes primary refractive surface, total internal reflection surfaces, and a secondary refractive surface associated with the total internal refection surfaces. A primary emission axis associated with the emitter is defined through the lens body, and a transverse reference plane is positioned parallel to the primary emission axis. A desired illumination region is located on a first side of the reference plane, and a desired dark region is located on a second side of the reference plane. The primary refractive surface, the total internal reflection surfaces and the secondary refractive surface direct a substantial portion of the light from the emitter to the desired illumination region.

Abstract: An apparatus comprising a base, a heat sink, a plurality of thermal elements, and a plurality of LED elements. The base may be configured to attach to a screw in light socket. The heat sink may be connected to the base. The plurality of thermal mounts may project from the heat sink. The thermal mounts may be electrically connected to the base and thermally connected to the heat sink. The plurality of LED elements may be connected to the thermal mounts. The LED elements may form a pattern about a central axis to project light evenly from the apparatus.

Abstract: A lamp that emits light and includes: a mounting board on which a light-emitting element is provided; a support disposed on a side opposite a light-emission-side of the mounting board; and a case connected to a support. The case includes a securing part which is disposed on the light-emission-side of the mounting board, and secures the mounting board to the support by sandwiching the mounting board between the securing part and the support.

Abstract: A lighting canister stand assembly is configured to elevate a transformer above a canister drain pipe within a canister underground. The lighting canister stand assembly has a lighting canister stand, further including a lighting canister rod mechanically coupled to a first side of a lighting canister platform. The canister further comprising a canister bottom, immediately adjacent to the lighting canister rod, and a canister wall immediately adjacent to an edge of the lighting canister platform. The lighting canister platform is configured to elevate the transformer above the canister drain pipe in order to permit water to drain out of the canister and away from the transformer.

Abstract: A recessed light fixture can include a movably adjustable light source and a thermal management system that includes a movable first heat sink, and a second heat sink. The first heat sink is thermally coupled to the adjustable light source, and is connected to move with the adjustable light source. The first heat sink includes a plurality of spaced apart first thermally conductive elements, such as fins. The second heat sink includes a plurality of spaced apart second thermally conductive elements, such as fins, which are interlaced between the first thermally conductive elements of the first heat sink. The interlaced thermally conductive elements increase surface area and heat transfer pathway(s) between the two heat sinks, while reducing physical contact, and thus friction, therebetween when movably adjusting the light source.

Abstract: There is provided a lighting apparatus and a method for reducing discomfort glare. The method comprises a step of providing a first portion of light radiation in a first incident angle range; and another step of providing a second portion of light radiation in a second incident angle range consecutive to the first incident angle range. The first incident angle range is greater than the second incident angle range viewed from a vertically downward direction of a light source emitting the light radiation, and the correlated color temperature of the first portion of light radiation is lower than that of the second portion of light radiation.

Abstract: An LED street light comprising a housing having a support arm extending from a light emitting portion is presently disclosed. The support arm is configured and disposed to tool-lessly fastened and unfastened to and from a street light post. An LED PCB having an array of LEDs is tool-lessly removably held in the light emitting portion of the LED street light. A tool-lessly removable driver is housed in the LED street light. A method of installing the street light of the present disclosure to a light post is also disclosed herein.

Abstract: An assembly of a decorative trim on the exterior surface of a plastic cover lens of a headlamp. Locking means are molded on the outer side of the plastic cover lens, which extend out in a transverse direction (Y) pointing at an angle from the surface of the plastic cover lens. The decorative trim comprises locking means receivers into which the locking means engage, and at least one snapping means on the decorative trim and one complementary snapping means are provided on the plastic cover lens for securing the decorative trim against the transverse direction (Y).

Abstract: A method for adjusting the lighting range of a headlamp in a motor vehicle, is performed with the following steps. A first coordinateis acquired that corresponds to a position of the motor vehicle. At least one image of a camera connected with the motor vehicle is evaluated so as to acquire a second coordinate that corresponds to the position of an object on a roadway in the zone ahead of the motor vehicle. A reference angle is calculated for the motor vehicle from the first coordinate, the second coordinate and a height of the camera over the roadway. The lighting range of the headlamp is adjusted based on the reference angle.

Abstract: An emergency vehicle light fixture includes, among other things, an elongated body having a reflective surface formed by a series of alternating linear and revolved parabolic segments. The series of alternating linear and revolved parabolic segments are coextensive along the height of the reflective surface and have an optical axis. Each of the alternating linear and revolved parabolic segments has a focal point that lies along a common axis that is orthogonal to the optical axis.

Abstract: The present invention relates to an illumination system comprising at least one light source and an optical light mixing rod. The illumination system comprises a rod holder holding the optical light mixing rod in a position, where the entrance surface of the optical light mixing rod is arranged above the emitting window of the light source. The optical light mixing rod is from in a flexible and solid transparent material and the rod holder is adapted to provide a pressure force to the optical light mixing rod and the pressure force is adapted to press the entrance surface of the optical light mixing rod and the emitting window of the light source together. The optical light mixing rod comprises a bulge the entrance surface and the pressure force presses the bulge flat against the emitting window of the light source.

Abstract: A vented LED display is described including an LED display panel having a plurality of LEDs disposed thereon and defining a plurality of vent slots between the plurality of LEDs, each of the plurality of vent slots having a vent height. The vented LED display also includes a unitary injection-molded vent having a plurality of louvers and coupled to the LED display panel such that each louver corresponds to at least one vent slot and includes a louver length extending downwardly to at least 75% of the vent height of the corresponding vent slot.

Abstract: The present invention relates to a modular LED street light including an electrical chamber, a lamp arm, two supporting pipes, an end cap and a plurality of LED light source modules. The LED light source modules are fixed between the two supporting pipes. Each LED light source module includes a circuit board and a radiator. The radiator includes a first plate, two second plates extending from two sides of the first plate and a third plate connected to the two second plates. The radiator has a large area of heat dissipation. When it is required to increase or decrease the number of the LED light source modules for the purpose of increasing or reducing the power of the LED street light, all that is needed is exchanging with lengthened or shortened supporting pipes, thus enabling a power seriation of the street light at very low costs.

Abstract: A light source module adapted to a projector includes a light source, a light combining system, a first cooling fan, a second cooling fan, a first guide duct and a second guide duct. The light source includes a first light emitting device and a second light emitting device. The light combining system is disposed between the first light emitting device and the second light emitting device. The first cooling fan is disposed on the first light emitting device. The second cooling fan is disposed on the second light emitting device. The first guide duct is connected to the first cooling fan and guides a cooling airflow provided by the first cooling fan to the second light emitting device. The second guide duct is connected to the second cooling fan and guides a cooling airflow provided by the second cooling fan to the first light emitting device.

Abstract: A disclosed lighting apparatus includes a light-diffusive plate having opposing first and second faces bounded by one or more sides. A first electrically conductive sheet is disposed on the first face of the light-diffusive plate, and an electrically insulative sheet is disposed on the first electrically conductive sheet. A second electrically conductive sheet is disposed on the electrically insulative sheet. A plurality of light-emitting diodes (LEDs) have light emitting portions that face a portion of the light-diffusive plate. The LEDs are electrically coupled to the first electrically conductive sheet and to the second electrically conductive sheet.

Abstract: The present invention relates to a backlight module, comprising: a backboard having at least a positioning convex part protruding from a surface of the backboard; a light guiding plate arranged on the backboard, having a light-near side and a light-far side disposed opposite to each other, and two connecting sides disposed opposite to each other; a light source disposed near the light-near side of the light guiding plate; and at least a buffer element interposed between the light-far side of the light guiding plate and the backboard, and the buffer element abuts against the light-far side.

Abstract: A radiation-emitting device and a method for producing a radiation-emitting device are disclosed. In an embodiment, a radiation-emitting device comprises an optoelectronic semiconductor component and an optical element disposed downstream of the semiconductor component in an emission direction. The optical element is mechanically fixed to the semiconductor component by a clamp.

Abstract: One embodiment is a lighting device. The lighting device comprises a first case comprising a first extension part and a second extension part; a first light emitter disposed in the first case; a first diffuser disposed in the first case and over the first light emitter; a second case comprising a third extension part and a fourth extension part; a second light emitter disposed in the second case; a second diffuser disposed in the second case and over the second light emitter; and a bracket coupled to the second extension part and the third extension part.