28results about "Light sources" patented technology

The application discloses a Christmas tree decoration lamp and a connecting method, which comprises a first connecting structure, a second connecting structure, a third connecting structure and a connecting wire, the first connecting structure comprises a first main plug and a first branch plug, the second connecting structure comprises a second main plug and a second branch plug, and the third connecting structure comprises a third plug and a lamp tube; the first main plug is connected with a power supply interface; the first connecting structure is fixed on a main rod of an object in a ring shape; a plurality of second main plugs are connected with first branch plugs at different heights; the second connecting structure is annularly arranged on a plane of the main rod of the object; the third plug is connected with the second branch plug; and the third connecting structure is horizontally spread and attached to a branch rod of the object. The Christmas tree decoration lamp is provided with T-shaped foolproof structures at the connecting positions of the second branch plug and the second main plug, so that the positive and negative poles are prevented from being connected in error, the Christmas tree decoration lamp is not easy to be disconnected during transportation and placement, and the Christmas tree decoration lamp has the characteristics of stability, easy operation and strong adaptability.

A lighting device that connects one or more first devices (11) contained in a first local network to one or more second devices (21) contained in a second local network that is different from the first local network, wherein the lighting device comprises: a first processor configured to communicate wirelessly with the one or more first devices (11) via a first communication protocol; a second processor configured to communicate wirelessly with the one or more second devices (21) via a second communication protocol different from the first communication protocol; a controller configured to switch between causing the first processor to communicate wirelessly with the one or more first devices (11) and causing the second processor to communicate wirelessly with the one or more second devices (21); a power supply (143) configured to power a light source (141); and a lighting control (142) configured to control light emission through the light source (141) based on the current from the power supply (143), the control system is further configured such that: when the first processor receives initial information from the one or more first devices (11), it causes the second processor to send the initial information to the one or more second devices (21) via the second communication protocol; and when the second processor receives a second piece of information from the one or more second devices (21), it causes the first processor to send the second piece of information to the one or more first devices (11) via the first communication protocol, and the lighting control (142) is configured to cause the light source (141) to emit light according to one of the lighting scenes, one of which is based on the first information and one of which is based on the second information.

Lighting system with at least two light guides (8; 52-58), wherein the at least two light guides (8; 52-58) each have an input area (14) and an output area (12), and at least two radiation sources (16-22, 28, 30; 50), wherein a first radiation source of the at least two radiation sources (16-22, 28, 30; 50) comprises a first radiation surface (26) pointing towards an input area (14) of a first light guide of the at least two light guides (8; 52-58), and wherein a second radiation source of the at least two radiation sources (16-22, 28, 30; 50) comprises a second radiation surface (26) pointing towards an input area (14) of a second light guide of the at least two light guides (8; 52-58), characterized in that a first distance is provided between the input area (14) of the first optical fiber of the at least two optical fibers (8;52 - 58) and the radiation surface (26) of the first radiation source of the at least two radiation sources (16 - 22, 28, 30; 50) and a second distance between the coupling surface (14) of the second optical fiber of the at least two optical fibers (8; 52 - 58) and the radiation surface (26) of the second radiation source of the at least two radiation sources (16 - 22, 28, 30; 50) differ.;

Disclosed is a lamp (100) for a vehicle, including: an array module (200m) having a plurality of micro Light Emitting Diode (LED) chips disposed thereon and having a shape concave in a first direction; and a lens system (1040) configured to change a waveform of light output from the array module (200m), and having a optical power of a convex nature.

The invention relates to a light module (1) for a motor vehicle signaling device, comprising a plurality of selectively controllable light sources (2); each light source comprising an elementary light generator and a photoluminescent element covering the elementary light generator and capable of absorbing light rays emitted by this generator and emitting, in response, light rays of different wavelengths, characterized in that each light source comprises a plurality of walls made of a reflective material, each wall in contact with a lateral surface of the photoluminescent element, and the plurality of walls defining an enclosure surrounding the photoluminescent element of this light source. Figure to be published with the abstract: Fig. 1

This invention belongs to the technical field of cosmetic boxes, especially to intelligent lighted cosmetic box, which includes a top cover and a bottom cover. The top cover is hinged with the bottom cover, and a magnetic suction mechanism is provided at the connection of one side of the top cover and the bottom cover. The inner cavity of the top cover is fixedly connected with a lighting component through bolts, and a fixing groove is opened at one end of the top cover with the fixing groove being concave downward. By using batteries, circuit boards, and USB power interface, the light strip inside the cosmetic box can be recharged and powered, providing bright light intelligently. Light-shielding plate can soften the light emitted from the light strip, allowing users to have a clearer view while applying makeup without being obstructed, greatly enhancing the user experience and meeting the needs.

Disclosed is a lighting device having a light source having a first optical element that emits light having directivity and a second optical element, and one liquid crystal optical element that transmits or transmits and diffuses light emitted from the light source, the light source being configured so that the first optical element and the second optical element make the emission direction of light different, the liquid crystal optical element having a first electrode group that opposes the light emission surface of the first optical element, and a second electrode group that opposes the light emission surface of the second optical element and is disposed adjacent to the first electrode group, the first electrode group having a first transparent electrode and a second transparent electrode that is disposed alternately with the first transparent electrode, the second electrode group having a third transparent electrode and a fourth transparent electrode that is disposed alternately with the third transparent electrode, the pitch at which the first transparent electrode and the second transparent electrode are disposed alternately being different from the pitch at which the third transparent electrode and the fourth transparent electrode are disposed alternately.

The application discloses a long-life self-powered light source based on a radioisotope, which comprises a reflecting layer, and at least one layer of a mixture of a radioisotope source and a luminophore is coated on the reflecting layer; the radioisotope source is in a powder form, and the luminophore is a low-dimensional material. The light source structure is based on the mixture of the radioisotope source and the luminophore, and a protective layer is additionally designed, so that the light source structure has the advantages of high energy conversion efficiency, safety and economy. The powder radioisotope source and the low-dimensional luminophore can further improve quantum efficiency, reduce cost, reduce weight and simplify a preparation process, so that the light source structure has wide application potential and economic benefits in various application scenarios.

Disclosed is an internally illuminated bioreactor, and related algae production methods, that employ integrated in-water grow light assemblies configured to manage the heat generated by lighting elements, such as light emitting diodes (“LEDs”) on the in-water grow lights. The bioreactor includes an outer shell and one or more in-water grow light fixtures positioned within the outer shell that are positioned around the perimeter of a hollow, internal tube. The lighting elements and internal tube are themselves contained within a preferably clear, exterior tube of the light fixture that allows light generated by the lighting elements to pass through to the algae culture inside of the growth chamber. A heat management system is provided for cooling the light fixture using forced directed through the hollow, internal tube from the top to the bottom of the tube, out from outlets at the bottom of the internal tube, and upward in the fixture through buoyancy of the warmed air, and thus without additional mechanical air handling devices. As the air moves upward between the lighting elements and the exterior tube, it draws additional heat away from the lighting elements. The warmed air is ultimately exhausted from the top of the lighting fixture. Each lighting fixture preferably also includes a cleaning system that enables the automated cleaning of the outer surface of the exterior tube of the lighting fixture, thus preventing newly formed algae from collecting on the lighting fixture and ensuring a continuous flow of light from the fixture into the algae culture throughout algae production.

The invention relates to a lighting unit for an optical inspection system, which has several lighting units with which an object to be inspected can be illuminated from different directions at different times, and the light reflected back from the object by the different lighting units can be detected with at least one line camera, and a control unit that controls the lighting units synchronously with image acquisition and for a subsequent evaluation of the different images. It is provided that the at least one lighting unit has at least one mounting base body with a profile, such that mounting surfaces for base boards with soldered semiconductor lighting elements are formed that are closely adjacent to each other and arranged at an angle to the longitudinal axis of the lighting unit, and the mounting surfaces are inclined relative to the longitudinal axis of the lighting unit by an illumination angle. Furthermore, the mechanical fixing of the base boards to the mounting surfaces is achieved by means of spring force or snap-fit ​​connections, and the electrical contacting of the base boards is accomplished by soldering, bonding with conductive adhesive, or by means of contact elements on a conductive track. Such illumination units are particularly suitable for stereo-photometric surface analysis of an object's surface.

A holder (1) for an SMD (2) has a frame (10) for receiving the SMD (2), electric contacts (11) for contacting the SMD (2), and electric contacts (12) for connecting to an environment. An assembly (3) of the holder (1) and an SMD (2) contacted to the holder (1) is mounted on a circuit carrier (4). The frame (10) of the holder (1) may have various angles (15) relative to a plane (40) defined by the circuit carrier (4). The assembly (3) may be in thermal contact with a heat sink (5).

A method for forming a printed circuit board (100), comprising (a) Providing a substrate made of a first malleable polymer material, wherein the substrate has at least one electrical conductor on a surface; (b) Laminating a cover layer of a second malleable polymer material onto the substrate to form a flexible printed circuit board (104), wherein the at least one electrical conductor is arranged between the cover layer and the substrate, the cover layer having a plurality of holes which expose at least part of the at least one electrical conductor; (c) electrically connecting light-emitting diodes (LEDs) (108) to exposed sections of the at least one electrical conductor; and (d) Heating the flexible printed circuit board (104) by applying a force to cause the flexible printed circuit board (104) to bend and assume a shape with an arcuate cross-section; and (e) Cooling the flexible printed circuit board (104) until the shape is fixed, thereby forming a thermoformed printed circuit board (100) with an arc-shaped cross-section, wherein step (d) comprises: Arranging the flexible printed circuit board (104) in a mold (200), wherein the mold (200) has an upper half (204) and a lower half (202), wherein the upper half (204) has an elongated, convex longitudinal projection (212) having a channel (218) corresponding to a position of the LEDs (108), wherein the channel (218) has a size that prevents the LEDs (108) from touching the upper half (204) when the mold (200) is closed, wherein the lower half (202) has an elongated, concave longitudinal recess (210) for receiving the longitudinal projection (212) of the upper half (204), wherein the longitudinal projection (212) and the longitudinal recess (210) have a similar arcuate cross-section; Closing the mold (200) while the mold (200) and the flexible printed circuit board (104) are heated at a thermoforming temperature; and Holding the mold (200) in a closed position to give the printed circuit board (100) a shape with an arc-shaped cross-section, wherein the mold (200) has slots (220) in the lower half (202) for receiving longitudinal edges of the printed circuit board (100) and arranging the flexible printed circuit board (104) in the mold (200) includes inserting the printed circuit board edges into the slots (220).

A lighting device includes a light source having a first optical element and a second optical element emitting directional light, and one liquid crystal optical element transmitting or diffusing the light emitted from the light source. The first and the second optical elements include a first and a second light exit surfaces, and the first and the second light exit surfaces are arranged to direct in different directions. The liquid crystal optical element has a second electrode group arranged adjacent to a first electrode group. The first electrode group has a first transparent electrode and a second transparent electrode. The second electrode group has a third transparent electrode and a fourth transparent electrode. A pitch at which the first transparent electrodes and the second transparent electrodes are alternately arranged is different from a pitch at which the third transparent electrodes and the fourth transparent electrodes are alternately arranged.

A light source apparatus includes a first-light-source unit including one or more types of semiconductor light sources and for emitting a first ultraviolet light, a second-light-source unit including one or more types of semiconductor light sources and for emitting a second ultraviolet light differing in at least one of central wavelength and spectrum from the first ultraviolet light, a light tunnel for guiding each of the first ultraviolet light and the second ultraviolet light, and a mixing optical system provided within the light tunnel and configured to mix the first ultraviolet light and the second ultraviolet light to obtain a third ultraviolet light, wherein an inner surface of the light tunnel is a reflective surface for reflecting the first ultraviolet light, the second ultraviolet light, and the third ultraviolet light, and the third ultraviolet light obtained through mixture by the mixing optical system is emitted by the light tunnel.

The invention discloses a transparent conductive substrate and a manufacturing method thereof, a transparent display screen and a transparent lamp strip, and belongs to the technical field of LED transparent display. The manufacturing method comprises the following steps: preparing the transparent insulating film, the metal foil and the metal wire woven mesh; the metal foil is die-cut into a bonding pad through a die-cutting process, the metal wire woven mesh is die-cut into a strip-shaped metal wire woven mesh, the metal foil and the strip-shaped metal wire woven mesh are compounded on the rubber surface of the transparent insulating film, and the metal wire is in direct contact with the metal foil bonding pad or is in indirect contact with the metal foil bonding pad through a rubber layer; and fixing by rolling or laminating. The metal wire woven mesh is adopted to replace traditional continuous copper foil to serve as a main wire, light rays penetrate through gaps between adjacent metal wires, and the light transmittance is remarkably improved; the plurality of independent metal wires can independently release thermal stress in a high-temperature process, so that wrinkles, dead folds and fractures are avoided; and meanwhile, a die cutting composite process is adopted to replace traditional etching, copper materials are saved by more than 40%, and the manufacturing cost is greatly reduced. The transparent conductive film can be widely applied to transparent display screens, transparent lamp strips and other transparent conductive fields.

An electronic device (10A, 10B, 10C) includes a base substrate (12, 12B, 12C), a first circuit layer (14) and a plurality of light-emitting elements (16). The base substrate (12, 12B, 12C) has a first surface (S1) and a second surface (S2) opposite to each other. The first circuit layer (14) includes a first portion (14a) and a second portion (14b). The first portion (14a) is disposed on the first surface (S1) of the base substrate (12, 12B, 12C), and the second portion (14b) is disposed on the second surface (S2) of the base substrate (12, 12B, 12C). The light-emitting elements (16) are disposed on the first portion (14a) of the first circuit layer (14). At least one of the second surface (S2) of the base substrate (12, 12B, 12C) and the first portion (14a) of the first circuit layer (14) includes at least one microstructure (MS2, MS2b, MS3).

Disclosed are Christmas tree decoration lights and a connection method, the Christmas tree decoration lights include a first-level connecting structure being composed of a first-level main plug and a first-level branch plug, a second-level connecting structure being composed of a second-level main plug and a second-level branch plug, and a third-level connecting structure being composed of a third-level plug and lamp tubes; the first-level main plug is connected with a connection power interface, the first-level connecting structure is fixed on a main pole of an object, and a plurality of the second-level main plugs are connected with the first-level branch plugs at different heights; the second-level connecting structure is annularly surrounded on a plane of the main pole of the object, the third-level plug is connected with the second-level branch plug, and the third-level connecting structure is horizontally spread out and attached to a support rod of the object.

This invention provides an outdoor lighting device that offers excellent assembly ease and simplifies wiring work. [Solution] The structure comprises a first support column 2 on which a power storage unit 11 and a control unit 14 are provided, a second support column 3 on which a solar power generation unit 12 is provided, and a third support column 4 on which a lighting unit 13 is provided. The first support column 2 is fixed in an upright position relative to the foundation, and the first support column 2, the second support column 3, and the third support column 4 are connected in series in this order.

Methods and systems for integrating multiple, vertically oriented laser diode emitters into a low cost package suitable for high volume manufacturing are presented herein. Multiple laser diode based emitters are assembled on a mounting structure, which, in turn, is fixed to an insulated metal substrate. Each of the multiple laser diode based emitters are oriented such that the light output generated by each laser diode based emitter is aligned with a direction perpendicular to a mounting surface of the insulated metal substrate. In a further aspect, the insulated metal substrate includes electrically conductive layers disposed on the topside and backside of the thermally conductive metal core layer. Portions of the topside and backside electrical layers are electrically coupled such that the laser diode based illumination device is configured as a surface mount device amenable to low cost, surface mount, electronics manufacturing assembly processes.

An internally illuminated bioreactor and related algae production method are disclosed that uses a self-contained submerged culture light assembly configured to manage heat generated by light-emitting elements, such as light-emitting diodes ("LEDs") on the submerged culture light. The bioreactor includes an outer shell and one or more submerged culture light irradiators disposed within the outer shell and arranged along the outer periphery of a hollow inner tube. The light-emitting elements and inner tube are themselves housed within a preferably transparent outer tube of the irradiator, which allows light generated by the light-emitting elements to pass to the algae culture in the culture tank. A thermal management system is provided to cool the irradiators using forced air that flows through the hollow inner tube from the top to the bottom, then out an outlet at the bottom of the inner tube, and is directed upward by the buoyancy of the heated air, i.e., without the use of a mechanical air conditioner. As the air moves upward between the light-emitting elements and the outer tube, it further carries heat away from the light-emitting elements. The heated air is finally exhausted from the top of the irradiator. Preferably, each light irradiation device further includes a cleaning system that allows the outer surface of the light irradiation device's outer barrel to be automatically cleaned, thereby preventing newly formed algae from accumulating on the light irradiation device and ensuring a continuous flow of light from the device into the algae culture throughout algae production.

A track lighting system (100) is provided. A track lighting system includes a power track (110) and a lighting device (120). The lighting device includes a body (126), a support (122), and a controller (128). The body comprises a first LED light source (144) and a first end face (132) comprising a first light exit window (140) for transmitting a first light emitted by the first LED light source along a first primary optical axis (OA1). The body includes a second LED light source (146) and a first side (134) extending from the first end face to a second end face (130) opposite the first end face, wherein the first side includes a second light exit window (140) for transmitting second light emitted by the second LED light source. The support includes a connector (148) configured to electrically and mechanically connect the lighting device to the power rail. The support comprises a hinge member (124) connected to the body such that the body is pivotable relative to the support, where the inclination angle (theta) of the body is defined by a first axis (A1) orthogonal to the plane in which the power rail extends and a principal optic axis. The controller is configured to control a first luminous flux of first light (L1) emitted by the first LED light source and a second luminous flux of second light (L2) emitted by the second LED light source according to the tilt angle (theta).

To provide a lamp for a vehicle which implements a disparity perspective through refraction and reflection of side light radiated by a light source.SOLUTION: A lamp 1 for a vehicle includes: a lamp housing 10; a bezel part 20 installed in the lamp housing 10; a light source part 30 including a board 31 installed in the bezel part 20, and a plurality of light sources 35 mounted on the board 31; a lens part 50 which is attached to the lamp housing 10 and provided so as to radiate light generated by the light source part 30 to the outside; and a reflection part 40 which is installed spaced apart from the light source part 30 on the rear side opposite to the front side as seen in a direction from the light source part 30 toward the lens part 50 and which is provided so as to reflect the light radiated from the light source part 30 to the front side. The board 31 is formed of a transparent material having light transparency such that a portion of the light generated by the plurality of light sources 35 reaches the reflection part 40.SELECTED DRAWING: Figure 1

Method of manufacturing a flexible longitudinal lighting device comprising the following steps: - a strip (8) of an electrically conductive material is provided; - said strip (8) is cut to form a plurality of plates (11) spaced apart from each other and successively connected to each other by two power supply elements (12) and at least two control elements (13), the plates (11) each having two peripheral power supply terminals (15) opposite each other and at least four control terminals (16); - a plurality of electronic boards (9) are fixed respectively on the plates (11), each electronic board (9) being connected to the peripheral power supply terminals (15) and to the control terminals (16) on either side of the plate (11) on which it is fixed; - a plurality of intelligent light-emitting diodes (10) are fixed respectively on said plurality of electronic boards (9);- the said strip (8) is cut so as to isolate the power supply elements (12) and the control elements (13) from each other; and, - the assembly (7) is encapsulated in a flexible rod, said assembly (7) comprising the strip (8), the plurality of electronic boards (9) and the plurality of intelligent light-emitting diodes (10). Figure to be published with the abbreviation: Fig. 3;

According to various embodiments, techniques and mechanisms are provided to enhance damage detection for objects such as vehicles. In some implementations, a striped lighting tunnel is configured with cameras for capture of object or vehicle surface images when illuminated by striped lighting. The vehicle surface images may be captured from a variety of perspectives. Striped lighting capture may be implemented using gaps between uniform lighting panels and the uniform lighting panels themselves, along with high speed cameras capable of taking more than 120 frames per second. The gap width between uniform lighting panels may be determined using an inverse relationship with frame rate. Damage may be determined using striped lighting illuminated vehicle surface images to identify the type, likelihood, and extent of damage.