Abstract: A display apparatus includes a substrate, organic electroluminescence units, and a lens sheet. The lens sheet includes a sheet base and lenses protruding from a surface of the sheet base. A transparent substrate is above the lens sheet, and a bonding layer that includes a resin bonds the lenses to the transparent substrate. Either the substrate or the organic electroluminescence units include an alignment mark. The lens sheet includes a groove formed between the lenses in the sheet base. The groove is used for alignment with the alignment mark. The resin covers a surface of each of the lenses and is filled into the groove. A boundary area between the sheet base and each of the lenses, which is located between a surface of a lens and the groove, is covered by the resin.

Abstract: A lighting device may be provided that includes: a heat sink; a member which has a polygonal pillar shape having at least three sides and is disposed on the heat sink, wherein the sides are inclined at a predetermined angle toward the center of the heat sink; and a light source which is disposed on at least one among the sides of the member, wherein the light source includes: a substrate; at least two light emitting devices which are symmetrically disposed on the substrate with respect to the center of the substrate; and at least two lens units which are disposed on the light emitting devices respectively, and consequently, it is possible to meet U.S. Energy Star and ANSI specifications, to remarkably improve rear light distribution characteristics and to remove a dark portion.

Abstract: A lighting module (10), for example of the LED type, for mounting on a rail comprises a circuit board (12) for carrying one or more light radiation sources (L), and a support structure (14) with a first side (14A) facing the rail and carrying the aforementioned circuit board (12) and a second side (14b) situated on the opposite side to the rail and carrying one or more lenses (16) for the light radiation sources (L). The support structure (14) carries one or more flexible electrical contacts (18) having a first end (18a) protruding from the first side (14a) of the support structure (14) for making contact with an electrical line (T) provided on the rail (R) and a second end (18b) which extends towards the circuit board (12) so as to provide electrical contact for the light radiation source or sources (L).

Abstract: A light source channel is described. The light source channel includes an extrusion forming a channel having an open length and a light source positioned within the channel. A light transfer medium is positioned above the light source and covers the open length of the channel. The light transfer medium has a cross section. A method embodiment according to the present invention produces a light source channel by installing a light engine within a channel of an extrusion and covering the channel length with a light transfer medium above the light engine. The light transfer medium has a cross-section.

Abstract: A system and method for illuminating an elongated field of view of a linear or high aspect ratio area image sensor comprises providing illumination with an elongated field shape with a plurality of discrete light sources and projecting the illumination toward an object to be imaged; wherein the illumination projected on the object is substantially spatially invariant in intensity and angular distribution along the elongated field shape on the object.

Abstract: A screen enclosure lighting system includes a housing mounted to the framework of the enclosure. The housing has a base for supporting a light source. The housing also includes a back portion attached to the base and supporting a top cover above the base. A curved window interconnects the base, the back portion and the top covering for projecting light from the light source through of an angle of approximately 180°. Exterior electrical wiring interconnects the light fixtures to an alternating current source.

Abstract: A novel spatio-optical directional light modulator with no moving parts is introduced. This directional light modulator can be used to create 2D/3D switchable displays of various sizes for mobile to large screen TV. The inherently fast modulation capability of this new directional light modulator increases the achievable viewing angle, resolution, and realism of the 3D image created by the display.

Abstract: A light source includes a tube fixed to a first and a second end part. The tube has a lateral area. A part of the lateral area includes a light-outcoupling surface of the light source. At least one first light-emitting diode is mounted to the first end part and at least one second light-emitting diode is mounted to the second end part. Each of the first and the second light-emitting diode emitting light along a main direction of extent of the tube. A light reflecting sheet covers all interior surfaces of the tube except the light-outcoupling surface.

Abstract: An LED illuminating device for projecting light to a predetermined illuminating plane, includes a supporting pole extending from the illuminating plane, a first LED module arranged on the supporting pole and a second LED module arranged on the supporting pole. The first LED module is for projecting light to a first part of the illuminating plane. The second LED module is for projecting light to a second part of the illuminating plane. The first part of the illuminating plane is adjacent to the supporting pole. The second part of the illuminating plane is adjacent to the first part of the illuminating plane and away from the supporting pole.

Abstract: A lighting arrangement using LEDs that has an elongated translucent diffuser having a flat upper surface along the length of the diffuser. The transverse cross-section of the elongate translucent diffuser may have various shapes, all having substantially flat tops, including but not limited to quadrangular, rectangular, trapezoidal, and non-isosceles variations of these shapes. The elongated translucent diffuser is mounted on an elongated housing of substantially the same length to support the diffuser. The elongated housing may be solid or hollow and may contain the LEDs and circuit board, or the LEDs and circuit board may be contained within the elongated translucent diffuser. The LEDs are configured to transmit light through the diffuser so that the emitted light simulates light from a traditional neon tube.

Abstract: A lamp includes a supporting body and a lamp body. The supporting body is fixed to a support such as a ceiling. The supporting body defines a plurality of apertures each including a hole and a slot. The slot has a width less than a diameter of the hole. The lamp body includes a housing, a heat sink, a light source and a cover. The housing forms a plurality of protrusions each including a pole and a head. The head has a diameter larger than a width of the slot. The protrusions extend through the holes of the apertures and then are rotated into the slots, whereby the heads are located above the slots and engage with the supporting body. Thus, the lamp is suspended from the support. A resilient member is provided between the housing and the supporting body.

Abstract: An LED light bulb structure includes a lamp cover and a lamp holder engaged with one another to form a light source accommodating space, and the lamp holder has a circuit board, and at least three first LEDs installed in the light source accommodating space and electrically coupled to the circuit board. Each first LED has a light source portion and a plurality of pins, and an end of the pins is coupled to the light source portion, and the other end of the pins is electrically coupled to the circuit board, and each light source portion has a lens and a chip, and the lens covers the chip, and the chip irradiates a light beam in a horizontal direction, and the first LEDs are installed sequentially next to one another, such that the light source portions are arranged into a circle to form an installation space.

Abstract: An atmosphere light with interacting functions includes a body formed with a plurality of polygon-shaped blocks which are connected to each other, a plurality of lenses respectively covering the blocks, a receiving space defined between the lens and the block, a light source located in the receiving space and mounted at the center on the bottom of the block, a cover assembled in the receiving space and covering the light source, a controller assembled in the body and electrically connected to the light source so that the light source is varied by the controller. Under this arrangement, when the light beams from the light source are transmitted to the lenses, the light beams are refracted by the lenses and passes through the lenses; consequently, the light beam is formed as a virtual image at the center of the body via the refraction.

Abstract: An illuminating device includes a hot-cathode fluorescent tube (discharge tube) and a light emitting surface that emits light from the hot-cathode fluorescent tube. An auxiliary light emitting portion is provided in the vicinity of a non-lighting region of the hot-cathode fluorescent tube. The auxiliary light emitting portion includes an optical fiber having an incident portion for receiving light from the hot-cathode fluorescent tube, and a light guide plate that receives light from the optical fiber and emits the incident light toward the light emitting surface.

Abstract: An LED light source includes a carrier, a plurality of LED chips and at least one set of lenses. The carrier has a mounting surface and the LED chips are mounted on the mounting surface. The set of lenses disposed on the carrier includes a first lens and a second lens, and the first lens encapsulates one of the LED chips and a lighting pattern provided from the LED chip encapsulated by the first lens is converted into a first lighting pattern. The second lens encapsulates one of the LED chips and a lighting pattern provided from the LED chip encapsulated by the second lens is converted into a second lighting pattern. The second lighting pattern is different from or compensates the first lighting pattern.

Abstract: An illuminating lens includes: a light entrance surface through which light emitted from a light source enters the lens; and a light exit surface through which the light that has entered the lens exits the lens. The light exit surface has: a concave portion intersecting the optical axis; and a convex portion provided around the concave portion to extend continuously from the concave portion. The light exit surface is formed in a shape such that a curvature C of micro-segments of the light exit surface in a cross section including the optical axis has a maximum value at a position outward from the midpoint of the convex portion.

Abstract: Light engines for luminaires that include a printed circuit board of a geometric shape, light emitting diodes provided on the PCB, and an optic that is mounted on the PCB to cover the LEDs. One or a plurality of light engines may be mounted in a luminaire. The light engines may be arranged in any orientation within a luminaire and such arrangement may be specifically tailored to the geometric shape of the luminaire, if desired. The light engine design of embodiments contemplated herein allows customization of the pattern of emitted light from a luminaire, which is impacted by the type of optic (i.e., Type I-V) incorporated into each light engine in the luminaire and the rotational orientation of each optic in such light engines.

Abstract: A method for manufacturing an illuminating device includes steps of: forming an electrical conductive circuit on a metallic substrate, arranging light-emitting elements on the metallic substrate to be electrically connected with the electrical conductive circuit, covering a transparent cap on each of the light-emitting elements, fixing an electrical connector to the metallic substrate to be electrically connected to the electrical conductive circuit, forming a transparent body outside the transparent caps, the metallic substrate and the electrical conductive circuit by means of an over-molding process; forming a lamp cover outside the transparent body, the metallic substrate and the electrical connector by means of an over-molding process. An illuminating device is further provided, thereby prevents the light-emitting elements from suffering damage due to the temperature and pressure of the over-molding process, and increasing the brightness of the light emitted by the light-emitting elements.

Abstract: An apparatus and method for producing a spatially uniform irradiance in an image plane are provided. The apparatus includes an array of light emitting diodes (LEDs) which generate light (i.e., an image). The apparatus combines the outputs of an array of the LEDs in such a way as to produce a spatially uniform irradiance in an image plane some distance away. The apparatus includes an array of lenslets to form images of the emitting areas of the individual LEDs. The lenslets have a magnification, size and spacing such that the images produced by the respective LEDs are adjacent to one another and not overlapping. The irradiance distribution in the image plane is equivalent to an image of an LED whose emitting area is equal to the total area of the LED array, and whose total power is equal to the total power of the LEDs in the LED array.

Abstract: A predetermined illuminated surface pattern is generated from a predetermined energy distribution pattern of an LED light source within an LED package having a light transmitting dome. An estimated optical transfer function of a lens shape of an optic is defined by the shape of an exterior and inner surface which envelopes at least in part the light transmitting dome of the LED package. An energy distribution pattern is obtained by combination of the estimated optical transfer function and the predetermined energy distribution pattern of the light source. A projection of the energy distribution pattern onto the illuminated surface is determined. The projection is compared to the predetermined illuminated surface pattern. The estimated optical transfer function is illuminated surface pattern.

Abstract: An illuminating lens includes: a light entrance surface through which light emitted from a light source enters the lens; and a light exit surface through which the light that has entered the lens exits the lens. The light exit surface has: a concave portion intersecting the optical axis; and a convex portion provided around the concave portion to extend continuously from the concave portion. The light exit surface is formed in a shape such that a curvature C of micro-segments of the light exit surface in a cross section including the optical axis has a maximum value at a position outward from the midpoint of the convex portion.

Abstract: A domestic appliance (1) includes a housing or wall (6) and a wall portion (8). The portion is an integral part of the housing (6). The appliance has a display means (2) comprising a light source (10), a mask (2) and a diffuser (4). The housing (6) may be smoothly shaped to obtain an appealing design. A separate or standardized display may be perceived as a disruption of a smooth design of the appliance. To incorporate the display means (20) into the design the integral wall portion (8) is transparent and positioned between the diffuser (4) and the mask (2). An inner face of the wall portion (8) is directed to the mask (2). An outer face of the wall portion (8) is directed to the diffuser (4). A diffusing layer (32) included in the diffuser (4) is provided on the outer face of the integral wall portion (8).

Abstract: An apparatus, method, or system of lighting units comprising a plurality of lighting elements, such as one or more LEDs, each element having an associated optic which is individually positionable. In embodiments of the present invention, one or more optics are developed using optimization techniques that allow for lighting different target areas in an effective manner by rotating or otherwise positioning the reflectors, refractive lenses, TIR lenses, or other lens types to create a composite beam. The apparatus, method, or system of lighting herein makes it possible to widely vary the types of beams from an available fixture using a small number of inventoried optics and fixtures. In some cases, by using a combination of individual beam patterns, a small set of individual optics would be sufficient to create a majority of the typical and specialized composite beams needed to meet the needs of most lighting projects and target areas.

Abstract: Apparatus and method for using a light source having spatially separated light emitting areas emitting light at different wavelengths to incapacitate a subject by a pattern of temporal flashing and/or color flashing of the light source. Also, power circuitry and optics particularly suited for flashing light incapacitation are included.

Abstract: A decorative lighting fixture includes a frame, a light source, a sheer layer, a coating, and a plurality of light bending particles. The frame has at least a structural element adapted to form a three dimensional shape that includes an interior and an exterior. The light source is positioned within the frame or may be external. The sheer layer extends over at least a portion of the frame so light from the light source passes through at least a portion of the sheer layer as it exits or enters the fixture. A coating is located on at least a portion of an external and/or internal surface of the fixture. The light bending particles are coupled to the coating such that light colliding with the light bending particles is altered to create a desired visual effect. Methods for making the decorative lighting fixture are also provided.

Abstract: A LED street lamp comprises a connector, a power supply assembly and a light source assembly, the connector is provided with a structure of internal toothed rings, the light source assembly comprises two supporting aims and a plurality of light source modules, the assembling and disassembling of the street lamp are convenient and the maintenance cost is thereby decreased.

Abstract: A lighting device is provided, which includes a substrate, at least one lighting element and at least one optical element. The lighting element is disposed on the substrate, wherein the lighting element produces light. The optical element, disposed on a light-emitting path of the light, wherein the optical element includes a base and a refractive portion. The base includes a first end and second end, wherein the second end is thinner than the first end. The refractive portion is connected to the second end of the base, wherein the refractive portion includes a curved surface.

Abstract: A device comprising a plurality of LEDs arranged in a coplanar array, the coplanar array comprising an LED at the center and LEDs positioned radially symmetrically around the LED at the center, and wherein the central axes of the LEDs are arranged to be parallel to each other; a one-piece lens array collimating light from the LEDs, the lens array comprising a plurality of coplanar lens tiles, the coplanar lens tiles comprising a lens tile at the center and lens tiles positioned radially symmetrically around the lens tile at the center, and wherein the central axis of each of the lens tiles is aligned with the central axis of a corresponding LED; and a focusing lens converging the collimated light from the lens array into a single image in a focal plane, wherein the central axis of the focusing lens is aligned with the central axis of the lens array.

Abstract: A lighting device (1) makes it possible to manufacture a plurality of models at a low cost, which plurality of models are different from each other in brightness. The lighting device (1) includes a plurality of light-emitting sections (4) each having LEDs (8a, 8b) that emit light. At least one of the light-emitting sections (4) have a plurality of mounting areas (7a, 7b) designed to be provided with the respective LEDs (8a, 8b). By changing, to one or two, the number of LEDs to be provided in each of the light-emitting sections (4), it is possible to manufacture, by use of identical transmission units (3), a plurality of types of illumination devices that are different from each other in brightness.

Abstract: An LED lighting lamp contains a cover, having a port for power leads, ports for cover fixing, an external collar, catches, feeding socket and feeders' connecting cube, fixed inside the cover to its bottom; a housing, having an external collar with rectangular recess, protrusions arranged on the vertical walls inside the housing, bars, catches, a seat in which the PIN ends are fastened to be connected with feeding socket, wherein the catches are connected with cover catches; an electronic board of the feeder, with ports for housing bars, electronic elements and electrical connectors placed on the upper surface as well as connector support placed on the lower surface; insulation molder, fastened in the housing collar's recess and having a central rectangular cavity with rectangular and round ports in its bottom; a radiator in the form of a rectangular molder, fastened in the cavity of insulation molder and having on its upper surface a central rectangular seat, inside which, at least two bars and one port are p

Abstract: The invention relates to a light emitting diode (LED) light source comprising an LED die, or a closely packed die array or matrix of die arrays, substantially and efficiently coupled to non-imaging collection optics. The non-imaging collection optics operate to provide a homogenized LED output having a near field whose intensity is highly uniform and a reduced far field extent substantially preserving the étendue (area, solid angle, index squared product) of the LED output. The near field, in turn, is imaged by a downstream relay lens to an illumination plane a specific distance away.

Abstract: [Object] To provide an illumination apparatus capable of reducing a view angle dependency of a chromaticity distribution in a light-emitting surface of a phosphor layer. [Solving Means] A light beam control device (11) that controls emitted light from light-emitting diodes (10) so that a view angle dependency of a chromaticity distribution in a light-emitting surface (22a) of a phosphor layer (22) is suppressed is interposed between the light-emitting diodes (10) and the phosphor layer (22). The light beam control device (11) causes the emitted light from the light-emitting diodes (10) to be bent in a vertical direction or an approximately-vertical direction with respect to the light-emitting surface (22a) of the phosphor layer (22) and thus causes the light to enter the phosphor layer (22).

Abstract: A light emitting diode device (e.g., LED package) may include at least two light emitting devices that can be switched independently of one another and thus may be useful in vehicular lighting applications, for example low and high beam headlights. A LED device may include a first LED die and at least one additional LED die disposed at different positions within a common reflector cup or relative to a common lens. Multiple LED sub-assemblies may be mounted to a common lead frame along non-coincident principal axes. Methods for varying intensity or color from multi-LED lamps are further provided.

Abstract: LED lamp has LEDs aimed rearwards with either a concave mirror to the rear of each LED, or one concave mirror to the rear of two or more LEDs, collecting the light from the LEDs to form a forward projecting beam. LEDs may be high power types that require heatsinking. LED lamp may have a lens forward of each LED to collimate the radiation produced by the LEDs into a beam, where at least one lens has at least one aspheric curved surface. LED lamp may have a transparent reflective optic to collimate the radiation produced by each LED into a beam. For an inspection lamp, the LEDs typically have a peak wavelength of 395 to 415 nanometers for seeing the area being irradiated but not so visible as to overwhelm fluorescence of fluorescent materials to be detected. Other wavelengths may be used.

Abstract: In a variable shaped lamp shade of an LED lamp, the lamp shade is made of a translucent material matched with an LED lamp strip and a lamp holder and includes at least one strip-shaped optical refraction unit having an external refractive surface, an internal refractive surface corresponding to the external refractive surface, and an assembling structure for matching the lamp holder. The external refractive surface or internal refractive surface is a curved surface without an inflection point and the curved surface has a constant or gradually changing curvature; and a non-curved surface is formed on the other side. The variable shaped lamp overcomes the problems of conventional LED lamp strips having a low illumination and a non-uniform illumination caused by a direct projection or an installation of a conventional lamp shade, and a low light utility caused by a too-large illumination range.

Abstract: A light emitting unit includes a substrate, plural light emitting elements disposed on the substrate, and a lens array disposed above the plural light emitting elements. The lens array includes a base and plural lenses that each focus light emitted from a corresponding light emitting element among the plural light emitting elements. The base includes a boundary surface which is in contact with the plural lenses and an opposing surface which opposes the plural light emitting elements. The distance from one of the plural light emitting elements to the boundary surface of the base which is in contact with a corresponding lens among the plural lenses is different from the distance from another one of the plural light emitting elements to the boundary surface of the base which is in contact with a corresponding lens among the plural lenses.

Abstract: An LED light module and a backlit sign using at least one of the LED light modules are described. The LED light module comprises at least two LED light sources that are spaced apart from each other. Each of the LED light sources is covered by a lens and at least two of the lenses have a different shape than each other. The LED light module produces a uniform intensity of light on a backlit surface. The LED light module can include three LED light sources. Two of the lenses covering the LED light sources emit light that is distributed off-axis and a third of the lenses covering the LED light sources emits light that is distributed substantially on-axis. The backlit sign comprises a housing, at least one LED light module disposed in the housing and a backlit surface on the housing extending over the LED modules.

Abstract: A light-emitting diode lamp comprises a supporting salver comprising a first and second surfaces, the second surface defines first recesses; light-emitting diodes (LEDs) mounted on the first surface; a lampshade covering the light-emitting diodes, the lampshade comprising an optic portion facing the LEDs, the optic portion comprising lenses, each of the lenses facing each of the LEDs, the lampshade defining second recesses corresponding to the first recesses, each of the first recesses aligned with each of the second recesses; and clips each comprising a connecting portion and two buckling portions at two opposite ends of the connecting portion, the connecting portion being resilient, one of the two buckling portions being received in one of the first recesses, another one of the two buckling portions being received in a corresponding one of the second recesses, wherein the lampshade is interchangeably mounted on the supporting salver through the clips.

Abstract: A Fresnel light emitting diode (LED) Lens and a LED Assembly thereof are provided. The Fresnel LED Lens is a lens disposed with a plurality of Fresnel optical surfaces. Each Fresnel optical surface includes a zone area having a plurality of drafts with vertical shape. Each Fresnel optical surface is arranged linearly along a center of a corresponding LED, and each Fresnel optical surface can used to focus light emitted from a LED chip so as to generate a quasi-circle distribution pattern of light with uniform light intensity and satisfy special optical requirements. A LED assembled formed by the Fresnel LED lens and a corresponding LED is used as a light source applied to illumination, mobile phone flashlights or camera flashlights.

Abstract: A light-directing apparatus for preferential-side distribution of light from a light emitter having an emitter axis, including a lens member positioned over the light emitter and a shield member. The lens member has a proximal end substantially transverse the emitter axis and an outer surface which may be configured for refracting light from the emitter. The shield member is received in a shield-receiving void of an inner surface of the lens member. Another aspect of this invention is a lighting fixture utilizing such light-directing apparatus.

Abstract: A method of installing a secondary optical lens on a LED street lamp comprises the first step of installing a secondary optical lens on a lens floor and the second step of installing the lens floor with the secondary optical lens and a LED arrayed board on the body of the LED street lamp. By this method, LED bulb and secondary optical lens can contact directly and be located precisely.

Abstract: The invention describes an integral lighting assembly (1A, 1B, 1C, 1D, 1E) comprising an optical arrangement (2, 3); a first light source (S1) for generating a first beam (L1) of light; a first collimator (C1) for directing the first beam (L1) at the optical arrangement (2, 3); a second light source (S2) for generating a second beam (L2) of light; and a second collimator (C2) for directing the second beam (L2) at the optical arrangement (2, 3), wherein the optical arrangement (2, 3) is realized to manipulate the first and second light beams (L1, L2) to give a first exit beam (BLO) and a second exit beam (BRI) such that the first exit beam (BLO) and the second exit beam (BRI) are partially combined in an overlap region (44) on a projection plane (4) located at a predefined distance from the integral lighting assembly (1A, 1B, 1C, 1D, 1E). The invention further describes an automotive headlamp arrangement (12) comprising such an integral lighting assembly (1A, 1B, 1C, 1D, 1E).

Abstract: A light shielding plate of an outdoor LED lighting device, comprising a main body disposed on a light exit plane of said outdoor LED lighting device. On a bottom surface of said main body is provided with at least a protrusion block, to reflect lights coming from LEDs or said LEDs plus a secondary lens set of said outdoor LED lighting device, in achieving light shielding effect. Moreover, on a reflection plane of said protrusion block is further provided with curved planes of various designs, to fully utilize the shielded light, so that lights are redistributed in areas of effective illumination, in further realizing power saving requirements.

Abstract: An LED illumination device comprising a lens assembly, a circuit board having at least one LED and a housing to retain said circuit board and said lens assembly, and wherein said circuit board comprises a plurality of pores adjacent said at least one LED to facilitate airflow over a large surface area of said circuit board in the vicinity of said at least one LED.

Abstract: An illumination optical system includes a two-dimensional laser-array light source including a plurality of laser light sources arranged in a two-dimensional array on a plane; an integrator optical system configured to superpose incident light and emit the light to an irradiated surface; a plurality of first lenses disposed parallel to the plane and configured to superpose beams from the two-dimensional laser-array light source in a first axis direction and emit the beams to the integrator optical system while limiting a divergence angle in the first axis direction of the two-dimensional array; and a plurality of second lenses disposed rearward of the first lenses and configured to superpose the beams from the two-dimensional laser-array light source in a second axis direction orthogonal to the first axis direction and emit the beams to the integrator optical system while limiting a divergence angle in the second axis direction.

Abstract: A lighting device (10) includes an optical member (1) having (i) an entrance surface which is provided with a columnar convex lens and a prism group constituted by a plurality of prisms and (ii) an exit surface (1 a) which is provided with a prism group (4a, 4b) constituted by a plurality of prisms that differ in shape. The prism group (4a) which is provided on the exit surface (1 a) changes a direction of a light ray which (i) is emitted in a normal direction of a substrate surface by being reflected therein and (ii) has a high intensity to a direction which is highly inclined with respect to the normal direction. Accordingly, it is possible to provide the lighting device (10) which has a simple arrangement and is capable of controlling a light distribution characteristic.

Abstract: A light fixture may include LEDs that each emits light into a particular zone on a lens, where each zone has its own focal properties. Each LED may be grouped into one (or more) subset(s) that corresponds to the zone(s) struck by its emitted light. The LEDs may be selectively electrically controllable, so that the amount of light transmitted through each zone may be controllable by the electrical control system of the fixture. Because light transmitted through different zones emerges from the fixture having different widths, the electrical control system can directly control the amount of light emerging at each width. By mixing relatively narrow light with relatively wide light in the proper proportions, the electrical control system of the fixture may produce light having any desired angular profile between “narrow” and “wide”.

Abstract: A light fixture has an array of light emitting diodes arranged on a substrate, an array of lenses arranged adjacent the diodes, each lens corresponding to a diode, and having a center, the array of lenses arranged such that the each lens center is offset from a location of the diode. A light fixture has an array of light emitting diodes arranged in a x-y grid on a substrate, and an array of lenses arranged adjacent the array of light emitting diodes, each lens corresponding to a diode and having a center, the array of lenses arranged such that each lens center is offset a distance along a location axis of the diode.

Abstract: The present invention relates to an operation lamp, consists of a plurality of illumination units, a fastening seat, a focus adjusting device and a lamp housing. The illumination units are designed to be modularized, so a plurality of LED light source sets and reflection mirrors can be processed with a rapid focus adjustment for allowing each illumination unit reflecting and concentrating and focusing light for forming a concentrated light beam. Moreover, after the plural illumination units and the lamp housing are assembled, through adjusting the height difference between at least two pivot parts at the outer end of each illumination unit and supporting members, the left/right oblique angle of the illumination unit is able to be adjusted, such that each concentrated light beam can be precisely adjusted to pass through the lamp center.

Abstract: The present disclosure relates to methods for fabricating electrical connectors of a waterproof connector-heat sink assembly of a LED light bar module using injection molding. The methods include matching the coefficient of thermal expansion (CTE) of injection molding materials for the connectors and heat sinks. A heat sink and conductor pins are inserted into an injection mold and the injection molding materials are injected into the injection mold. An integrated connector-heat sink assembly is formed when the injection molding materials of the connectors form a waterproof seal with the heat sink when the injection molding materials solidify. Placement of the heat sink and conductor pins inside the injection mold is controlled to ensure that adhesive bonding between the injection molding materials and the heat sink is stronger than a maximum shear force.