Class / Patent application number | Description | Number of patent applications / Date published |
362309000 | With complex surface | 64 |
20080212328 | ETENDUE-SQUEEZING ILLUMINATION OPTICS - In some embodiments, an apparatus for use generating illumination is provided that comprises a reflective base, a first light source positioned proximate the reflective base, and a reimaging reflector positioned partially about the first light source, where a percentage of light emitted from the first light source is reflected from the reimaging reflector to the reflective base adjacent the first light source establishing a first real image. The reimaging reflector can further comprise a first sector of a first ellipsoid and a second sector of a second ellipsoid, where the first and second sectors establish the first and a second real image. Further embodiments provide a lens that includes a reimaging reflector that receives light and reflects the light establishing a first real image. The reimaging reflector can further comprise a plurality of sectors that reflect light to establish first and second real images. | 09-04-2008 |
20080247173 | LENS SYSTEM FOR LED LIGHTS - An optical device for distributing light produced by a white LED or other light-producing device includes a lens portion that refracts the light to provide a desired light intensity distribution, and a collimating portion that internally reflects light from the white LED. The optical device may be molded from an acrylic polymer material or the like. The reduced thickness of the device facilitates low cycle times and reduces warpage or other distortion that would otherwise be generated during the molding process. | 10-09-2008 |
20080266871 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of microstructures, and at least a lamp-receiving portion. The bottom surface is opposite to the light output surface. The microstructures are formed at the light output surface and the bottom surface respectively. Each microstructure has circular cross-sections taken along a plane parallel to its base surface thereof, a diameter of the circular cross-sections decreasing along a direction away from its base surface thereof. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266872 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate section. The transparent plate section includes a light output surface, a bottom surface, a plurality of elongated V-shaped protrusions, a plurality of spherical protrusions and at least one lamp-receiving portion. The light output surface is opposite to the bottom surface. The elongated V-shaped protrusions are formed on the bottom surface. The spherical protrusions are formed on the light output surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266873 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of microstructures and at least a lamp-receiving portion. The bottom surface is opposite to the light output surface. The microstructures are formed on the light output surface and the bottom surface respectively. Each microstructure includes at least three side surfaces connected with each other, a transverse width of each side surface decreasing along a direction away from the base surface of the microstructure. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266874 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a first surface, a second surface, a plurality of conical frustum protrusions, a plurality of spherical protrusions and a lamp-receiving portion. The second surface is opposite to the first surface. The conical frustum protrusions are formed at the first surface. The spherical protrusions are formed at the second surface. The lamp-receiving portion is defined in at least one of the first surface and the second surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266875 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of through holes and at least one lamp-receiving portion. The light output surface is opposite to the bottom surface. Each of the through holes communicates the light output surface with the bottom surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266876 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate section. The transparent plate section includes a light output surface, a bottom surface, a plurality of spherical protrusions, a plurality of microstructures, and a lamp-receiving portion. The light output surface is opposite to the bottom surface. The spherical protrusions are formed on the light output surface. The microstructures are formed on the bottom surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266877 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of elongated V-shaped protrusions, a plurality of spherical depressions, and a lamp-receiving portion. The light output surface is opposite to the bottom surface. The spherical depressions are formed in the light output surface. The elongated V-shaped protrusions are formed on the bottom surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266878 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of enclosing V-shaped protrusions, a plurality of spherical protrusions, and a lamp-receiving portion. The light output surface is opposite to the bottom surface. The spherical protrusions are formed on the light output surface. The enclosing V-shaped protrusions are formed on the bottom surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266879 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a first surface, a second surface, a plurality of microstructures, a plurality of spherical depressions and a lamp-receiving portion. The second surface is opposite to the first surface. The microstructures are formed at the first surface. Each microstructure includes at least three side surfaces connected with each other, a transverse width of each side surface decreasing along a direction away from the first surface. The spherical depressions are formed at the second surface. The lamp-receiving portion is defined in at least one of the first surface and the second surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080266880 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes one or more transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of spherical depressions, a plurality of enclosing V-shaped protrusions, and one or more lamp-receiving portion. The light output surface is opposite to the bottom surface. The spherical depressions are formed on the light output surface. The enclosing V-shaped protrusions are formed on the bottom surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 10-30-2008 |
20080285287 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes one or more transparent plate section. The transparent plate section includes a light output surface, a bottom surface, a plurality of spherical depressions, a plurality of protruding structures and one or more lamp-receiving portion. The light output surface is opposite to the bottom surface. The spherical depressions are formed on the bottom surface. The protruding structures are formed on the light output surface. Each protruding structure includes two conical frustums aligned at a center axis and stacked together. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 11-20-2008 |
20090010005 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of enclosing V-shaped protrusions, a plurality of microstructures and at least one lamp-receiving portion. The light output surface is opposite to the bottom surface. The enclosing V-shaped protrusions are formed on the bottom surface. The microstructures are formed on the light output surface. The lamp-receiving portion is defined in the bottom surface. A backlight module using the present optical plate is also provided. | 01-08-2009 |
20090016067 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a first surface, a second surface, a plurality of enclosing V-shaped protrusions, a diffusion layer and a lamp-receiving portion. The second surface is opposite to the first surface. The enclosing V-shaped protrusions are formed at the first surface. The diffusion layer is formed at the second surface. The lamp-receiving portion is defined in one of the first surface and the second surface. A backlight module using the optical plate is also provided. | 01-15-2009 |
20090016068 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate ( | 01-15-2009 |
20090021947 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit. The transparent plate unit includes a light output surface, a bottom surface, a plurality of enclosing V-shaped protrusions, a plurality of microstructures and a lamp-receiving portion. The light output surface and the bottom surface are on opposite sides of the optical plate. The enclosing V-shaped protrusions are formed on the bottom surface. The microstructures are formed on the light output surface. Each microstructure has circular cross-section taken along a plane parallel to its base surface thereof, a diameter of the circular cross-section decreasing along a direction away from its base surface thereof. The lamp-receiving portion is defined in at least one of the light output surface and the bottom surface. A backlight module using the present optical plate is also provided. | 01-22-2009 |
20090027893 | OPTICAL PLATE AND BACKLIGHT MODULE USING THE SAME - An exemplary optical plate includes at least one transparent plate unit and a diffusion layer. The transparent plate unit includes a light output surface, a bottom surface, a plurality of elongated V-shaped protrusions, and a lamp-receiving portion. The bottom surface is opposite to the light output surface. The elongated V-shaped protrusions are formed at the bottom surface. The lamp-receiving portion is defined in the bottom surface. The diffusion layer is formed on the light output surface of the transparent plate unit. A backlight module using the present optical plate is also provided. | 01-29-2009 |
20090027894 | BACKLIGHT ASSEMBLY AND LIQUID CRYSTAL DISPLAY APPARATUS USING THE SAME - A backlight assembly includes a bottom chassis, a flat fluorescent lamp, a frame and a reflecting member. The flat fluorescent lamp is supported in the bottom chassis, and the flat fluorescent lamp includes a plurality of discharge spaces to generate light. The frame is combined with the bottom chassis to hold the flat fluorescent lamp. The reflecting member in one embodiment is coupled to the frame to cover an edge portion of the flat fluorescent lamp. In another embodiment, the reflecting member is integral with the frame. | 01-29-2009 |
20090040768 | LIGHT GUIDE PLATE AND DIRECT-TYPE BACKLIGHT MODULE WITH SAME - An exemplary backlight module includes a light guide plate and light sources. The light guide plate includes a block body and the recessed parts. The block body has a top light output surface and a bottom surface. The recessed parts are provided at the bottom surface. The light sources are disposed at least partly in or adjacent to the recessed parts. | 02-12-2009 |
20090067177 | Manufacturing Method of Optical Film with Focusing Function and Backlight Module using the Optical Film - An optical film with focusing function is applicable to a backlight module for adjusting an optical property thereof. A manufacturing method of the optical film includes the steps of: (a) providing a transparent base including a light incident surface and a light output surface, the light output surface having a plurality of focusing microstructures formed thereon; (b) forming a reflective layer on the light incident surface; and (c) providing a laser beam incident on the reflective layer from at least one of the focusing microstructures, the laser beam being focused on the reflective layer by the at least one of the focusing microstructures and forming at least one aperture in the reflective layer, the at least one aperture being corresponding to the at least one of the focusing microstructures. A backlight module using the manufactured optical film is also described. | 03-12-2009 |
20090091936 | Focal point projection light signal comprising a beam concentrator - An improved focal point projection light signal device having a single point light source, a Fresnel lens, and a reflective beam concentrator having a spherical reflective surface located to the rear of the light source. The single point light source is positioned at the focal point of the Fresnel lens such that light emitted toward the Fresnel lens is refracted into a concentrated beam pattern that is projected from the front of the lens. The reflective surface of the beam concentrator is spherically concave and is positioned such that light emitted to the rear of the light bulb is reflected back through the lens focal point and out through the Fresnel lens. The overall diameter of the reflective beam concentrator is significantly smaller than the diameter of the Fresnel lens such that reflection of extraneous light sources that may produce phantom signal indications is minimized. | 04-09-2009 |
20090109687 | VARIABLE SPOT SIZE LENSES AND LIGHTING SYSTEMS - Improved lighting devices and methods are provided. In many embodiments, the devices and methods provide the capability to change a spot of light projected onto a target surface. In other embodiments, the devices and methods are fixed-focus. In one embodiment a lens can have a lens body with anterior and posterior surfaces. The anterior surface can be adapted to receive light from a light source. The posterior surface can have a central portion and a peripheral portion. Some of the light from the light source can pass through the lens body and exit the central portion of the posterior surface via refraction. Some of the light from the light source can pass through the lens body and exit the peripheral portion of the posterior surface via both refraction and reflection at various surfaces of the lens. | 04-30-2009 |
20090296406 | Brightness enhancement film and backlight module - This invention relates to a brightness enhancement film (BEF) and backlight module in which the brightness enhancement film comprises a plurality of continuous trapezoidal columnar units. The first surface and the second surface of each trapezoidal columnar unit are parallel to each other, and the first surface is provided with a plurality of micro-protrusions or micro-indentations in regular or irregular arrangement such that the brightness enhancement film has good beam-condensing performance by the provision of the trapezoidal columnar unit and the micro-protrusions or the micro-indentations on it, and brightness enhancement film is not damaged in the assembling process. Additionally, when brightness enhancement film is utilized in the backlight module, a backlight module with good light-output efficiency as well as low manufacturing cost can be obtained by only stacking in order of a brightness enhancement film, a planar light source and a reflector. | 12-03-2009 |
20090296407 | LUMINAIRE AND METHOD OF OPERATION - A luminaire and a method of operating a luminaire is provided. The luminaire includes a light source emitting a plurality of light rays. A collimation device is arranged to receive a portion of light from the light source and transmits the portion of light through an exit aperture towards an illuminated area. The exit aperture includes a planar portion and at least one lenslet formed thereon. The lenslet is arranged having a first profile and a second profile, where the portion of light is refracted on a plurality of angles to form a twisted profile by the lenslet. | 12-03-2009 |
20100085762 | OPTIMIZED SPATIAL POWER DISTRIBUTION FOR SOLID STATE LIGHT FIXTURES - In one embodiment, a method for illuminating a work surface using a solid state lighting fixture includes generating light from a solid state light source, introducing the light into a light guide, reflecting some of the light from a reflector back into the light guide, and introducing light emitted from the light guide into at least one optical element. The emitted light from the at least one optical element has a shifted spatial power distribution to more closely approximate a vertical and horizontal Lambertian spatial power distribution, and the emitted light comprises a total zonal lumens of at least about 90-percent of the total zonal lumens emitted without the at least one optical element. The solid state lighting fixture being operable to emit non-polarized light to generally accurately reproduce colors of objects on the work surface. | 04-08-2010 |
20100195335 | BEAM SPREADING OPTICS FOR LIGHT EMITTING DIODES - An optical element is disclosed, for receiving relatively narrow light from a planar light-emitting diode (LED) source, and for redistributing the light into a relatively wide range of output angles that span a full 360 degrees. The element may be used to retrofit existing fixtures that were originally designed for incandescent bulbs with LED-based light sources that have similar emission profiles. The element is small enough so that it may be packaged along with an LED module and its control electronics in the volume envelope of an incandescent light bulb. An exemplary element is a single, transparent, rotationally-symmetric lens that has a batwing shape in cross-section, extending angularly away from a longitudinal axis. The lens also includes a variety of curved, straight, specular and optionally diffuse portions on its longitudinal and transverse faces, all of which cause a variety of internal and external reflections, refractions, and optionally scattering. As such, many of the specific lens features cannot be directly linked to specific optical effects at a particular angle; rather, the features all interact with each other to produce the wide-angle light output. | 08-05-2010 |
20100220485 | SIDE ILLUMINATION LENS AND LUMINESCENT DEVICE USING THE SAME - The present invention relates to a side illumination lens and a luminescent device using the same, and provides a body, a total reflection surface with a total reflection slope with respect to a central axis of the body, and a linear and/or curved refractive surface(s) formed to extend from a periphery of the total reflection surface; and a luminescent device including the lens. According to the present invention, a lens with total internal reflection surfaces with different slopes, and a linear and/or curved refractive surface(s) allows light emitted forward from a luminescent chip to be guided to a side of the lens. Further, a linear surface(s) formed in a direction perpendicular or parallel to a central axis of a lens and a curved surface are formed on an edge of the lens so that a process of fabricating the lens is facilitated, thereby reducing a defective rate and fabrication costs of the lens. | 09-02-2010 |
20100246191 | OPTICAL SHEET AND METHOD FOR PRODUCING THE SAME - An optical sheet including a first layer having a concavo-convex pattern which reflects light, and a second layer laminated over the concavo-convex pattern and made of a light-transmissive material, wherein the optical sheet is disposed opposite to a light-emitting surface of a light-emitting element. | 09-30-2010 |
20100302783 | LED STREET LIGHT LENS - The present invention is directed to a lens. In one embodiment, the lens includes a first surface, a second surface that bends a light emitted from a light source with the first surface, a third surface that bends the light emitted from the light source with the first surface and a fourth surface coupled to the second surface and the third surface that bends the light emitted from the light source with the first surface. The first surface and the second surface are dioptric. The first surface and the third surface are dioptric. The first surface and the fourth surface are catadioptric. | 12-02-2010 |
20110032712 | ILLUMINATION SYSTEM - An illumination system including at least one light source such as an electroluminescent element, e.g. a light emitting diode (LED), and at least one optical element whose surface is structured by diffraction and/or refraction type optical microstructures. In order to shape the beam, the optical element includes at least two sections whose optical microstructures and therefore optical properties are different from one another. The pattern of the microstructures in each of the at least two sections is, at least over a predetermined angular range, rotationally symmetric with respect to the optical axis or another symmetry axis. | 02-10-2011 |
20110051426 | LENS FOR LIGHT EMITTING DIODE - A lens includes a first transparent member and a second transparent member. The first transparent member includes a bottom surface, a Fresnel lens surface and a first sidewall. An LED is received in the bottom surface. The Fresnel lens surface is configured for aligning the light from the LED. The first sidewall is configured for refracting the light from the LED. The second transparent member includes a second bottom surface, an upper surface and a second sidewall. A second receiving portion is defined in the second bottom surface for receiving the first transparent member. The upper surface is configured for reflecting the light through the Fresnel lens surface so that the light is redirected to radiate laterally. The laterally radiated light transmits out of the lens through the second sidewall. | 03-03-2011 |
20110310618 | LUMINOUS FLUX CONTROL MEMBER AND OPTICAL APPARATUS HAVING THE SAME - A luminous flux control member can stabilize an optical performance, make manufacturing easy and improve efficiency of use of light at the same time. A reflection surface ( | 12-22-2011 |
20120140483 | LED UNIT - A light emitting diode (LED) unit having a lens is disclosed. The lens comprises a base, the base comprising a bottom face configured to a light incident face for light entering the lens, and a top face; a first member and a second member, wherein the first and second members curve outward from the top face of the base, wherein the first member comprises a first light emergent face, the first light emergent face has a Fresnel lens surface curved outward from the top face, and light emitted from the first light emergent face illuminates areas far away from the lens, and wherein the second member comprises a second light emergent face, the second light emergent face has a rough surface finish, the second light emergent face is at first angle from the top face, and light emitted from the second light emergent face illuminates areas near the lens. | 06-07-2012 |
20120155092 | OPTICAL LENS MODULE AND LIGHTING APPARATUS HAVING THE SAME - An optical lens module includes a lens body and a transflective unit. The lens body has a central axis, and has an incident surface, a refractive surface and a side refractive surface. The refractive surface includes a refractive arc-surface and at least one auxiliary refractive surface on the side of the refractive arc-surface. The transflective unit covers the refractive surface. The light incident on the refractive surface is diverged away from the central axis and the diverged light on the transflective unit is partially through the transflective unit and partially reflected to travel out of the lens body through the side refractive surface. The light incident on the transflective unit is reflected to travel out of the lens body through the side refractive surface. The light incident on the side refractive surface is refracted out of the lens body through the side refractive surface. | 06-21-2012 |
20130063950 | LUMINOUS FLUX CONTROL MEMBER AND LIGHT-EMITTING APPARATUS INCLUDING THE SAME - A luminous flux control member that controls travelling direction of light emitted from a light source includes an incident area, an emission area, and a plurality of projecting sections. The plurality of projecting sections are constituted by an inner area, an intermediate area, and a peripheral area defined in the radial direction, and a first specific projecting section disposed in the inner area is configured such that a planar section that is used to measure the height of the first specific projecting section and is perpendicular to the optical axis is connected to an inner peripheral end and an outer peripheral end of a base end portion of the first specific projecting section. The projecting sections other than the first specific projecting section, in principle, come into contact internally or externally with another projecting section other than the first specific projecting section. | 03-14-2013 |
20130088877 | LIGHTING DEVICE AND COMPONENT - A light device and a lighting component are provided. The lighting device comprises a LED module and a lighting component. The LED module has an exposed light emitting surface. The lighting component covers the LED module and has an inputting surface and a top outputting surface. The inputting surface faces the light emitting surface of the LED module, the top outputting surface has a concave structure, and the concave structure is located opposite the light emitting surface. | 04-11-2013 |
20130107540 | TRAFFIC SIGNAL LIGHT DEVICE | 05-02-2013 |
20130121004 | HIGH EFFICIENCY DIRECTIONAL LIGHT SOURCE USING LENS OPTICS - At least one embodiment in the disclosure describes a high efficiency directional light engine. The light engine comprises a light emitter emitting light and a collimation lens. The collimation lens has a cone-shaped sidewall, a base surface and a curved top surface. The height of the cone-shaped sidewall is at least three times more than the diameter of the base surface. The light emitter is optically coupled to and disposed in close proximity to the base surface. One or more first reflection images of the light emitter result from first reflection of the light off a surface of the cone-shaped sidewall. The diameter of the light emitter is substantially close to the diameter of the base surface so that the light emitter and the first reflection images form a virtual point light source with minimal gap(s) or without any gap between the light emitter and the first reflection images. | 05-16-2013 |
20130170222 | LIGHT EMITTING DIODE LAMP HAVING VARIABLE LIGHT FIELD - A light emitting diode lamp includes a lamp body, a light emitting diode arranged on the lamp body, and a lamp cover to cover the light emitting diode. The lamp cover includes a lens in front of the light emitting diode to modulate the light from the light emitting diode. The light emitting diode lamp further includes a driver and an adjusting device. The driver is formed between the lamp body and a lamp cover. The adjusting device controls the driver to adjust a distance between the lens and the light emitting diode, whereby a light filed of the light from the light emitting diode is adjustable. | 07-04-2013 |
20130182444 | LED HEAD AND PHOTON EXTRACTOR - The invention concerns a semiconductor based light source comprising a back part, a front side and at least one semiconductor chip having an emitting surface, at least one reflective optical element being arranged below said at least one semiconductor chip, a material with low refractive index being disposed on a side of said reflective optical element facing said front side, wherein said semiconductor based light source comprises on said front side a compound material with high refractive index having at least one diffractive optical element embedded therein, such as to direct light incident on said diffractive optical element towards preferred directions. | 07-18-2013 |
20130258676 | WIDE ICICLE-TYPE LIGHT-ADJUSTING LENS FOR DIFFUSING THE LIGHT OF AN LED - Disclosed is a light adjusting lens for adjusting light emitted from an LED, the light adjusting lens being a left-right symmetric lens structure formed of an amorphous polymer material selected from a glass material, PC, PMMA, and COC and having a body an entire interior of which is filled, the light adjusting lens including: an icicle inner surface forming an inner line of the body and having a light adjusting boss at a central portion thereof in the form in which a peak and a gully are formed deeply; and a light diffusing outer surface in which a light diffusion expanding induction for inducing expansion of diffusion of light is formed by slowly recessing the central portion of the aspheric structure, wherein diffusion of light is adjusted through dual processing of refraction and internal reflection by the icicle inner surface and the light diffusing outer surface. | 10-03-2013 |
20130294087 | LUMINAIRE WITH PRISMATIC OPTIC - A luminaire with a prismatic optic permits the nearly uniform distribution of light about the luminaire. The prismatic optic permits the use of directional light sources, such as light emitting diodes, while maintaining the uniform light distribution. Furthermore, a concave shape of the optic further enables uniform light distribution. When light emitting diodes are used, the luminaire further includes a heat sink to maintain a desirable operational temperature without negatively affecting the light distribution properties of the luminaire. | 11-07-2013 |
20140043826 | LUMINOUS FLUX CONTROL MEMBER, LIGHT EMITTING DEVICE, AND DISPLAY DEVICE - Disclosed are a luminous flux control member, which includes an incident surface onto which a light is incident, a reflective surface reflecting the incident light, and a light exit surface outputting the reflected light according to at least two orientation angles based on one direction perpendicular to a central axis connecting a center of the incident surface with a center of the reflective surface, a light emitting device and a display device having the same. The uniformity in the brightness of the display device is ensured and the display device is realized in small size | 02-13-2014 |
20140063815 | LED LAMP - An LED lamp includes a base, a driving circuit board mounted to the base, a lighting module, a light guide member, and a reflecting member for reflecting light transmitted from the light guide member. The lighting module includes LEDs annularly disposed on and connected electrically to the driving circuit board. The light guide member has a light-receiving end corresponding in position to the LEDs. The reflecting member has an annular reflecting portion disposed in the light guide member, and a covering portion extending outwardly from a distal end of the annular reflecting portion and covering a distal end of the light guide member. | 03-06-2014 |
20140063816 | OPTICAL ELEMENT AND ILLUMINATION UNIT - An optical element according to the present invention includes a light receiving surface which is designed to cover an emitting surface of a planar light source device, a reflecting surface, a light exit surface which is contiguous to the periphery of the reflecting surface. When the center of the emitting surface is designated as a point O and an axis which passes through the point O and is perpendicular to the emitting surface is designated as an optical axis of the optical element, the reflecting surface has a concave portion around the optical axis and an outer edge surrounding the concave portion. | 03-06-2014 |
20140071692 | Lens, LED Module and Illumination System having Same - An illumination system includes at least an LED module, and at least an illuminated area. The LED module includes an LED, and a lens mounted in light path of the LED. The lens includes a light source recess, a first light emitting surface, a critical reflecting surface, and a second light emitting surface intersecting with the first light emitting surface and being on same side with the first light emitting surface. The first light emitting surface can receive more light quantity than the second light emitting surface. Although the light emitted from the first light emitting surface may have greater attenuation than the light emitted from the second light emitting surface, light emitted from the first light emitting surface can make up the intensity losses of attenuation as the first light emitting surface receives more light quantity than the second light emitting surface. As a result, the illumination system | 03-13-2014 |
20140071693 | Lens, LED Module and Illumination System having Same - An illumination system includes an LED module and an illuminated area. The LED module includes an LED, and a lens mounted in light path of the LED. The lens includes a light source recess, a first light emitting surface, a critical reflecting surface, and a second light emitting surface intersecting with the first light emitting surface and being on same side with the first light emitting surface. The first light emitting surface can receive more light quantity than the second light emitting surface. Although the light emitted from the first light emitting surface may have greater attenuation than the light emitted from the second light emitting surface, light emitted from the first light emitting surface can make up the intensity losses of attenuation as the first light emitting surface receives more light quantity than the second light emitting surface. As a result, the illumination system has a uniform illumination pattern. | 03-13-2014 |
20140071694 | Lens, LED Module and Illumination System having Same - An illumination system includes at least an LED module, and at least an illuminated area. The LED module includes an LED, and a lens mounted in light path of the LED. The lens includes a light source recess, a first light emitting surface, a critical reflecting surface, and a second light emitting surface. The first light emitting surface can receive more light quantity than the second light emitting surface. In result, although the light emitted from the first light emitting surface may have greater attenuation than the light emitted from the second light emitting surface, light emitted from the first light emitting surface, which is father to the illuminated are, can make up the intensity losses of attenuation as the first light emitting surface receives more light quantity than the second light emitting surface. As a result, the illumination system has a uniform illumination pattern. | 03-13-2014 |
20140078746 | DEVICE FOR SCATTERING LIGHT - A device for scattering light emitted from at least one light source includes, among other things, a light coupler configured for placement adjacent to the light source. The light coupler includes a first region proximal the light source where the first region has a first index of refraction and a second region abutting the first region to define a boundary therebetween. Being distal to the light source, the second region has a second index of refraction that is greater than the first index of refraction. Light emitted from the light source is scattered as a result of travelling through the first region and the second region. | 03-20-2014 |
20140119029 | ILLUMINATION APPARATUS - An illumination apparatus includes a substrate, a reflective cup, an illumination unit and a lens structure. The reflective cup is placed on the substrate, and includes a plurality of first fasteners. The first fasteners are placed on the outer surface of the reflective cup. The illumination unit is mounted on the substrate within the reflective cup. The lens structure covers the reflective cup, and includes a plurality of second fasteners. The second fasteners can be removably engaged with the first fasteners, so that the lens structure can be fastened on the reflective cup. | 05-01-2014 |
20140140070 | LED LAMP - An LED lamp includes a base, a driving circuit board mounted to the base, a lighting module, a light guide member and a reflecting member. The lighting module includes a plurality of light emitting diodes that are disposed on and electrically connected to the driving circuit board. The light guide member has an open end portion that is connected to the base, that corresponds in position to the light emitting diodes, and that is disposed for receiving light emitted from the light emitting diodes, and a close end portion that is opposite to the open end portion. The reflecting member is disposed in and abuts against the light guide member for reflecting the light transmitted from the light guide member. | 05-22-2014 |
20140211482 | ILLUMINATION DEVICE - An illumination device, includes a printed circuit board, a plurality of LED light sources mounted on the printed circuit board, a hollow supporting post covering the plurality of LED light sources, a reflective cup located above the supporting post, a first lens received in a bottom portion of the reflective cup and a second lens located at a top portion of the reflective cup. The supporting post is connected to the printed circuit board, and the first lens is connected to the supporting post. The reflective cup includes a bottom portion adjacent to the LED light sources and a top portion remote from the LED light sources. The printed circuit board, the reflective cup, the first lens and the second lens are combined as a whole by the supporting post. | 07-31-2014 |
20140355273 | LIGHT FLUX CONTROLLING MEMBER AND LIGHT EMITTING DEVICE - A luminous flux control member ( | 12-04-2014 |
20140369051 | SPOT TIR LENS SYSTEM FOR SMALL HIGH-POWER EMITTER - A lamp includes a single emitter structure having a substrate with 25 or more light emitting diodes (LEDs) arranged thereon and a power rating of 80 Watts or more, a total internal reflection (TIR) lens with a plurality of refractive surface regions disposed on the step-shaped upper surface of the optical body, and a holder having a plurality of tabs disposed along an inside rim of the holder and configured for radial compression fit with a flange of the lens, and three or more support members configured for centering the optical body member with respect to the single emitter structure. | 12-18-2014 |
20150043218 | LENS AND LIGHT SOURCE MODULE WITH SAME - The present disclose relates to a lens. The lens includes a bottom surface; a light input surface depressed from a center of the bottom surface; a light output surface opposite to the light input surface, the light output surface comprising a concave surface located at a center thereof and a convex surface surrounding the concave surface; and total reflective side surfaces. The side surface includes a first and a second side surfaces gradually slanting outwardly along a direction from the bottom surface to the light output surface, and a third side surface and a fourth side surface being perpendicular to the bottom surface. The present disclose also relates to a light source module with the lens. | 02-12-2015 |
20150062917 | ILLUMINATION DEVICE FOR PROVIDING THE MAXIMUM ILLUMINATION EFFECT - An illumination device includes a light reflector; a base member disposed below the light reflector, having an upper surface provided a light emitting unit for emitting a direct light beam that extends directly to an exterior of the reflector and an indirect light beam that extends to the exterior of the reflector only after being reflected from the reflector; an optical lens disposed within the reflector in such a manner so as to be located above, spaced apart from the light emitting unit at a predetermined distance and lied within a traveling path of the direct light beam such that the direct light beam is adapted to pass through the optical lens; and a lens seat mounted securely on the reflector, having a lower surface that faces the base member and that is formed with a plurality of light incident sections located adjacent to one another. | 03-05-2015 |
20150124460 | Lens and LED Module Having the Same - A lens includes an optical axis, a light source recess arranged through the optical axis, a reflection surface crossing through the optical axis, and a critical reflection surface which is arranged in a spaced relationship with the optical axis. The critical reflection surface is arranged between the light source recess and the reflection surface and receives the light from the light source recess and the reflection surface and reflects the light from the light source recess and the reflection surface towards the reflection surface. The emission light of the lens is light emitted forward of the light emitting surface which is reflected via the reflection surface and the critical reflection surface. Therefore, people cannot receive directly light emitted forward of the LED after it cross through the lens. In result, high luminance light from the LED is prevented from ripping into eyes, which achieve the aim of anti-glare. | 05-07-2015 |
20150292713 | Glass Lens LED Luminaire for Underwater Use - A lighting unit ( | 10-15-2015 |
20150330605 | LIGHTING UNIT, ESPECIALLY FOR ROAD ILLUMINATION - The invention provides a lighting unit ( | 11-19-2015 |
20150345742 | LENSES AND LIGHTING DEVICES INCLUDING SAME - Optical components for lighting devices and lighting devices including such components are described. In some embodiments the optical components are in the form of a lens that alter the distribution of light produced by a lighting fixture. In some embodiments, the lenses are in the form of a downlight to wallwash lens which, when placed in a downlight fixture, convert the light distribution to that of a wallwash fixture, e.g., causing the downlight to produce an off-axis light distribution, without changing the fixture. The lens includes a body with a light source facing side and an opposite room facing side having two optically active regions, each including structures that redirect a portion of light received through the light source facing side and incident thereon. The first region includes structures that redirect, via refraction, and the second region includes structures that redirect, in part via total internal reflection. | 12-03-2015 |
20150369453 | OLED/QLED LIGHT MODULE - A light module having a plate-shaped active element, which is formed by an OLED or QLED, and a plate-shaped, transparent carrier element having a surface on which the active element is arranged. The carrier element has an edge region that protrudes in relation to the active element. An optical element is arranged on a side of the carrier element opposite the active element and is designed to form a light-emitting area of the light module, which is widened compared to the area of the active element. | 12-24-2015 |
20160076710 | Method and System for Managing Light from a Light Emitting Diode - A light source, for example a light emitting diode, can emit light and have an associated optical axis. The source can be deployed in applications where it is desirable to have illumination biased laterally relative to the optical axis, such as in a street luminaire where directing light towards a street is beneficial. The source can be coupled to an optic that comprises a cavity. At least a portion of the cavity can have an outline that is egg-shaped in cross section. A backside of the cavity (or a backside portion of the optic) can have an irregular shape for receiving the light emitting diode, for example to form a receptacle shaped to fit a circuit | 03-17-2016 |
20190145603 | LIGHT DISTRIBUTION MODULE | 05-16-2019 |