Abstract: The present invention relates to the technical field of bulbs, and discloses a waterproof bulb structure comprising a bulb shell, a lamp holder connected with the bulb shell, and further comprising a core column assembly and a rubber seal seat with an elastic waterproof seal; the core column assembly comprises a first conductive component, an LED light bar and a second conductive component that are electrically connected in sequence. The present invention has the following advantages: resistors are fixed at the rubber seal seat, with wires passing through sealing holes, and the first conductive component and the second conductive component are in fit with the sealing holes to prevent water or moisture from entering the bulb shell, so that water can be completely prevented from entering the bulb shell, and the lamp does not produce fogging when in use, and has good lighting effect and longer service life.

Abstract: The disclosure described herein is directed to an in-grade lighting fixture with improved heat dissipation that provides greater flexibility in servicing, replacing, or installing internal components within the fixture. The in-grade lighting fixture comprises features to assist in dissipating heat generated by light sources, such as LEDs, and/or other electronic components to optimize performance and allow for increased output power for the light sources. The disclosure uses a heat sink assembly that is in thermal communication with the in-grade lighting fixture in order to dissipate heat within the lighting fixture out to the ambient, which optimizes performance and allows for increased output power for the light source.

Abstract: Embodiments of the present disclosure provide for a light emitting apparatus comprising a directional LED array and an opaque lens configured to disperse light in an omnidirectional output pattern while maintaining similar light dispersion and heat dissipation performance as that of translucent lenses. In accordance with various aspects of the present disclosure, the desired optical properties of the present light emitting apparatus may be enabled through the use of a lens constructed from a polycarbonate or polycarbonate blend material melt blended with a concentration of organic diffusion particles to comprise a thermoplastic matrix having a desired opacity and optical characteristics.

Abstract: An LED lamp includes a lamp base for insertion into a reflector of an automotive front lighting assembly; a panel extending from the lamp base with a first vertical side facing into one half of the reflector and a second vertical side facing into the other half of the reflector; a primary light source including a set of LED dies on each vertical side of the panel; a two-part shield including a first shield half shielding the LED dies on the first vertical side of the panel and a second shield half shielding the LED dies on the second vertical side of the panel. The two-part shield essentially has the form of a shield in a functionally equivalent filament lamp for providing a low beam. A lighting arrangement includes such an LED lamp; a reflector to receive the lamp; and an electrical interface for connecting to a controller.

Abstract: A self-conducting light valve module includes: a first transparent graphene thermal conductive film, a panel frame, an LCD light valve, and a second transparent graphene thermal conductive film; wherein the panel frame has a first plane and a second plane at two ends, respectively; a rectangular through hole is drilled at a center of the panel frame, and the LCD light valve is installed in the rectangular through hole; the first transparent graphene thermally conductive film is attached to the first plane and the incident surface of the LCD light valve; and the second transparent graphene thermally conductive film is attached to the second plane and the emergent surface of the LCD light valve. A light valve heat dissipation device includes: a heat diffusion device installed on an external peripheral wall of the self-conducting light valve module.

Abstract: A method of manufacturing an LED assembly is described. The method includes providing an LED package comprising one or more LEDs arranged in a support body and thermal and electrical contact regions on one or more surfaces of the support body. The method further includes providing a heatpipe and forming a thermal contact between a contact region of the LED package and a first end region of the heatpipe. An LED package, an LED assembly, and an LED lighting arrangement are also described.

Abstract: A vehicular luminaire according to embodiments includes a socket; a substrate provided on the socket and including a wiring pattern on at least one surface; at least one light-emitting element electrically connected to the wiring pattern; and a plurality of power-supply terminals extending inside the socket and including one end portion exposed from the socket, the vicinity of the end portion being bent toward the substrate.

Abstract: An LED lighting device 10 includes: a substrate 15 formed in an elongated shape; a first reflector 11 formed in a single rail shape on the surface of the substrate 15; plural LED elements 16 (16a and 16b) arranged in rows at positions on both sides of the first reflector 11 on the surface of the substrate 15; and a pair of rail-shaped second reflectors 12 (12a and 12b) formed on the surface of the substrate 15 in such a manner that the LED elements 16 (16a and 16b) and the first reflector 11 are interposed between the pair of second reflectors 12a and 12b.

Abstract: A device for curing resin in a pipe liner using electromagnetic radiation includes a heat sink and LEDs for generating the radiation mounted on the heat sink. The device conducts heat away from the LEDs through the heat sink. The heat sink is positioned in the flow path of cooling fluid that draws heat away by convection. The heat sink can include elements at the ends of the LEDs that are exposed to the cooling fluid. The device can guide the cooling fluid along a flow path that includes a segment that extends over the LEDs. The device can limit fluid flow through a central cavity of the heat sink.

Abstract: The present disclosure relates to a flexible screen, including a display substrate including a first portion, a second portion folded to form an end portion of the flexible screen and a third portion, said first, second, and third portions being sequentially connected, and a support plate for supporting the display substrate, wherein the first portion and the third portion of the display substrate are opposite to each other, the support plate is arranged between the first portion and the third portion of the display substrate, and one end of the support plate faces one surface of the second portion, and wherein the surface of the second portion facing the support plate is provided with an end heat dissipation device.

Abstract: A light emitting device includes a plurality of semiconductor laser elements, a light-transmissive member, and a wavelength conversion member. Each of the semiconductor laser elements is configured to emit light having a first wavelength. The light-transmissive member includes a plurality of first inclined surfaces and a lower surface. The light-transmissive member is positioned with respect to the semiconductor laser elements so that beams of the light emitted from the semiconductor laser elements enter the light-transmissive member respectively through the first inclined surfaces and exit from the lower surface. The wavelength conversion member is disposed in contact with the lower surface of the light-transmissive member and configured to convert at least a portion of the light exiting from the lower surface to wavelength-converted light having a second wavelength.

Abstract: A display unit subassembly includes an electronic display and an open loop pathway for ambient air. An upper portion including an upper cavity for ambient air extends above, and is spaced apart from, the display unit subassembly. A frame extends between the upper portion and the display unit subassembly. An air intake is located between the upper portion and the display unit subassembly, is configured to receive ambient air, and is in fluid communication with said upper cavity and said open loop pathway.

Abstract: An electron gun comprising a cathode having an electron emitting surface and whose planar shape is circular; a heater; an anode being arranged to oppose the cathode; and a heat resistant member. The anode applies a positive potential relative to the cathode to extract electrons in a predetermined direction. The cathode has, in a central portion thereof, a through hole along a central axis of the cathode. The heat resistant member has a first portion to close the through hole and a second portion being positioned between the cathode and the heater.

Abstract: Each of a plurality of the light-emitting units (140) includes a first electrode (110), an organic layer (120), and a second electrode (130). The first electrode (110) is light-transmitting, and the second electrode (130) is light-reflective. The organic layer (120) is located between the first electrode (110) and the second electrode (130). The light-transmitting regions (104 and 106) are located between the plurality of light-emitting units (140). A sealing member (170) covers the plurality of light-emitting units (140) and the light-transmitting regions (104 and 106). The sealing member (170) is fixed directly or through an insulating layer (174) to at least one of a structure (for example, the second electrode 130) formed on a substrate (100), and the substrate (100). In addition, a haze value of the light-emitting device (10) is equal to or less than 2.0%, preferably equal to or less than 1.4%.

Abstract: A lighting device (100, 500) is provided which comprises a light guide (110, 510), a metal strip (120, 520), a solid state light source (130, 530) and a base (160, 170, 540, 550) for mounting the lighting device. The base includes an electrical interface. The light guide extends along a plane (140). The metal strip extends at least partly around the light guide along a surface (111) of the light guide. The metal strip is arranged in thermal contact with the surface of the light guide. The solid state light source is arranged in thermal contact with the metal strip and is arranged to emit light into the light guide. The light guide serves to increase a light emitting area of the lighting device and to dissipate heat. The metal strip allows heat generated by the solid state light source to be transferred to the light guide.

Abstract: A light engine comprising a substantially tubular substrate including base portion with a plurality of slots, a first group of at least two filament LEDs on a first portion of the substantially tubular substrate, and a second group of at least two filament LEDs on a second portion of the substantially tubular substrate. Each of the first and second groups of the at least two filament LEDs being electrically connected through a base electrode to electrode contacts in the slots. The light engine also includes an electrical bus wire present proximate to the end of the substantially tubular substrate that is opposite the end at the base portion of the substantially tubular substrate, the electrical bus wire in contact with each filament LED for each of the first and second groups of at least two filament LEDs.

Abstract: The present invention provides a quantum dot light emitting diode comprising i) an emitting layer of at least one semiconductor nanoparticle made from semiconductor materials selected from the group consisting of Group II-VI compounds, Group II-V compounds, Group III-VI compounds, Group III-V compounds, Group IV-VI compounds, Group I-III-VI compounds, Group II-IV-VI compounds, Group II-IV-V compounds, or any combination thereof; and ii) a polymer for hole injection or hole transport layer; and the polymer comprises, as polymerized units, at least one or more monomers having a first monomer structure comprising a) a polymerizable group, b) an electroactive group with formula NAr1Ar2Ar3 wherein Ar1, Ar2 and Ar3 independently are C6-C50 aromatic substituents, and (c) a linker group connecting the polymerizable group and the electroactive group.

Abstract: A light system includes a main body defining an internal chamber and a lighting assembly secured to the main body, wherein the lighting assembly comprises at least one light unit configured to emit light. The light system further includes a fan configured to generate an airflow and an airflow circuit configured to direct the airflow out of the main body of the lighting assembly. The light system also includes a tilt detection unit configured to detect a tilt angle of the lighting assembly and to generate a control signal to cause a speed of the airflow generated by the fan to change based at least on a detected change in the tilt angle of the lighting assembly.

Abstract: A display device including a display panel; a module cover configured to cover a back surface of the display panel; a first adhesive member adhered to an edge of a front surface of the module cover facing the display panel and configured to adhere the module cover and the display panel; and a second adhesive member adhered to an inner area of the module cover inside the edge of the front surface and configured to adhere the module cover and the display panel. In addition, the first adhesive member includes a first base layer; and a pair of acrylic adhesive layers located at opposite sides of the first base layer and respectively adhered to the display panel and the module cover.

Abstract: The LED light bulb comprises an outer case, a heatsink, an LED light module, a power driver and a metallic bulb base. The LED light module includes a circuit board and an LED light source. The outer case includes a plurality of vent apertures. An interior surface of the heatsink defines a heatsinking pathway. The heatsinking pathway and the vent apertures are disposed and configured to provide a convection airflow pathway.

Abstract: A light bulb base includes a cylinder-shaped insulating component, a cylinder-shaped base connector, a metal thimble and a heat-dissipating component. The insulating component has a jack at its first side. The base connector has a circumferential interior bore extending there through. The interior bore accommodates the insulating component at a first side of the base connector. The metal thimble inserts into the jack at its first side via the interior bore. Such that the metal thimble rivets the base connector to the insulating component. The heat-dissipating component has a first side coupled to a second side of the insulating component. The heat-dissipating component includes a first opening at its second side. The heat-dissipating component also includes a cavity chamber disposed inside the first opening.

Abstract: The present invention has as its object the provision of a fluorescent light source device capable of stably obtaining high luminous efficiency and a production process of the same. The fluorescent light source device of the present invention includes a fluorescent plate which has a fluorescent light-emitting layer formed of a polycrystalline material and in which a periodic structure body is formed on an excitation light incident side of the fluorescent light-emitting layer. The fluorescent plate has a thermal diffusion layer which is directly bonded to a front surface of the fluorescent light-emitting layer on the excitation light incident side and has a thermal conductivity larger than that of the fluorescent light-emitting layer, and a high thermal conductive layer provided on a back surface of the fluorescent light-emitting layer opposite to the excitation light incident side.

Abstract: A supplemental lighting element (10) for a vehicle includes a circuit board (27) including at least one illuminator thereon, a housing having an optical element (12) in register with the at least one illuminator on the circuit board (27) and a heat sink (22) positioned between the circuit board (27) and the heat sink (22).

Abstract: An LED pump light with multiple phosphors is described. LEDs emitting radiation at violet and/or ultraviolet wavelengths are used to pump phosphor materials that emit other colors. The LEDs operating in different wavelength ranges are arranged to reduce light re-absorption and improve light output efficiency.

Abstract: A LED bulb comprises: a lamp-seat capable of connecting an external power supply, a lampshade fixed above the lamp-seat, and a circuit board mounted in the lamp-seat and the lampshade. The bottom end of the circuit board is electrically connected to the lamp-seat, and the top end defines a first portion provided for setting the upper-emitting light-source module. The circuit board has a second portion with a width gradually downwardly widened, and the second portion is set with an oblique-upper emitting light-source module. The circuit board is connected to a third portion, and the third portion has a width gradually narrowed downwardly, and the third portion is set with an oblique-lower emitting light-source module. The light-source modules are composed of a plurality of LED arrays and are suspended inside the lampshade, so they are compatible with the specification requirements of the United Nations Economic Commission for Europe's automotive Regulations.

Abstract: The invention provides a lighting module for use in a reflector which comprises at least one first light source emitting first light having a first light distribution with a first main direction and at least one second light source emitting second light having a second light distribution with a second main direction opposite to the first main direction. A base connects the lighting module to a luminaire socket. The base has a longitudinal axis extending from the base. The first light source is positioned on the longitudinal axis and the second light source is positioned at a non-zero distance to the longitudinal axis. The first main direction and the second main direction are substantially perpendicular with respect to the longitudinal axis.

Abstract: A method for manufacturing display apparatus comprises: forming a display panel by forming a plurality of display elements on a substrate having flexibility; providing a holding member at a part of or the entire of an outer edge of the display panel along the outer edge, the holding member engaging with an outer periphery of the display panel; preparing a supporting member having a surface on which the substrate of the display panel is to be placed; placing the substrate on the surface of the supporting member; bonding the holding member to the surface of the supporting member; and bringing the substrate into close contact with the surface of the supporting member at a strength lower than a bonding strength between the holding member and the surface of the supporting member.

Abstract: A liquid cooling module of an LED lamp, including a cooling body, two plugs and a heat source. The cooling body is formed with connected liquid flowing passages, and has the two plugs coupled to the two sides thereof. An inlet of each liquid flowing passage and an outlet of the adjacent liquid flowing passage are located at the same side of the cooling body. The inlet of the first liquid flowing passage is connected to an inlet hole of the plug at the same side. The liquid inlet of each liquid flowing passage besides the first one is connected to the outlet of the previous liquid flowing passage by a connecting groove of a corresponding plug. The outlet of the last liquid flowing passage is connected to an outlet hole of the plug at the same side.

Abstract: An LED lamp with a heat dissipation effect has an LED device and a lamp base. The LED device has a light bar and a protective cover. The light bar is formed by LED chips arranged on a plurality of conductive substrates at intervals and a packaging layer covering the LED chips. The protective cover covers the light bar and is filled with cooling liquid inside. The cooling liquid is in contact with the light bar for cooling. The heat generated by the LED chips is conducted to the protective cover by the cooling liquid, and then distributed to the air, thereby improving heat dissipation.

Abstract: A printed circuit board and a display device are provided. The printed circuit board includes a plurality of insulation layers; at least one metal layer between the plurality of insulation layers; and a fixing member fixed to a surface of one of the at least one metal layer and passing through an outermost one of insulation layers to protrude to the outside.

Abstract: A curved display device and an electronic device using the same, includes a display panel and a bottom cover formed to have a multi-layered clad metal coupling structure, and a heat dissipation layer and a pattern portion are defined in the bottom cover so as to assure improved heat dissipation performance and stiffness.

Abstract: Described herein is a light emitting diode (LED) luminaire comprising a cylindrical plastic housing having a first open end and a second open end. At the first open end, an externally threaded formation terminating with a flange is formed to mate with an internally threaded mounting unit, and at the second open end, an internal ridge is formed with a circumferential groove at its base. Inside the cylindrical plastic housing, an aluminum heat sink is insert molded. The aluminum heat sink has a cylindrical profile matching with the internal profile of the plastic housing. The aluminum heat sink has an open end towards the first open end of the plastic housing and a closed end resting on the internal ridge at the second open end of the plastic housing. With the interior surface of the closed end of the aluminum heat sink, a printed circuit board (PCB) holder plate locks a PCB driver.

Abstract: A white light emitting device or LED-filament comprises: a solid-state light emitter (LED) operable to generate excitation light; a first phosphor associated with the solid-state light emitter to generate light with a peak emission wavelength in a range 500 nm to 575 nm; and a second phosphor associated with the solid-state light emitter to generate light with a peak emission wavelength in a range 600 nm to 650 nm, wherein a percentage decrease in conversion efficiency corresponding to an increase in excitation light photon density exhibited by the second phosphor is larger than a percentage decrease in conversion efficiency corresponding to the same increase in excitation light photon density exhibited by the first phosphor.

Abstract: A light allocation item is set on a light source board to change the spread of the light comes out from the light source board. A light bulb shell shade is set around the light source board and the light allocation item. A bottom edge is set on the opening site of the bottom of the light bulb shell. The bottom edge is set around the light source board. A pressed device is set on light allocation item. The pressed device or the bottom edge is made of the elastic ingredients. The pressed device reaches to outside of the light source board to press the bottom edge of the light bulb shell. Setting the pressed device on the light allocation item makes the pressed device reach outside of the light source board. Therefore, the pressed device sets the bottom of the light bulb shell elastically to realize the fix.

Abstract: The disclosure relates to stage lighting fixtures, and in particular to a stage lighting fixture thermal system capable of dynamically adjusting air flow delivery. This stage lighting fixture thermal system comprises a light source and a heat dissipation chamber. Light source is arranged inside heat dissipation chamber. An illuminating side of light source faces a light outlet on a top part of heat dissipation chamber. The stage lighting fixture thermal system further comprises at least one first air supply mechanism communicated with heat dissipation chamber. The first air supply mechanism is dynamically arranged on heat dissipation chamber. The stage lighting fixture thermal system has a simple structure and is convenient to use. It may adjust, according to position change of light source, the air supply mechanism to an optimal position for heat dissipation to prolong life of the light source.

Abstract: Embodiments of the invention provide lighting systems that employ light-emitting diode (LED) chips as active lighting elements. Heat management components for the LED chips employed in the lighting sources are provided. In embodiments of the invention, LED chips are cooled by one or more heatspreaders and heat sinks attached to a substrate that houses the LED chip and/or the topside of the LED chip.

Abstract: Provided is a semiconductor light emitting device package. The semiconductor light emitting device package includes a substrate, a semiconductor light emitting device on the substrate, and an encapsulation layer which covers the semiconductor light emitting device. The encapsulation layer includes a plurality of ring portions which are disposed sequentially from an edge toward a center of the substrate in plan view, and a center portion which is surrounded by an innermost one of the plurality of ring portions.

Abstract: This invention provides an integrated LED energy-saving lamp, a manufacturing method thereof and a corn lamp. The LED energy-saving lamp comprises at least one tube, at least one baseplate, a plurality of LED lamp beads and a heat conductive adhesive. Each tube comprises two parallel first parts and a second part for connecting the two first parts. Each baseplate comprises two parallel branch parts, located on the same plane, and a connecting part for connecting with the two branches; the two branches are respectively located in the two first parts of the tube. The LED lamp beads are respectively arranged on the two branches. The heat conductive adhesive is pasted between the two branches and the internal wall of the tube.

Abstract: A curved LED tubular lamp is disclosed. The curved LED tubular lamp includes a curved lamp tube having two straight segments and a curve segment disposed between the two straight segments; at least one flexible substrate having a plurality of LEDs mounted thereon, and at least one positioning pillar formed on the inner surface of the curve segment of the curved lamp tube, wherein each of the two straight segments and the curve segment have LEDs disposed therein, and wherein the flexible substrate is disposed in at least the curve segment.

Abstract: A lighting device, comprising a shield element and at least a first light source, the first light source within a space defined by portions of the shield element, the shield element comprising at least one vent, the shield element blocking the first light source from direct view from locations outside the shield element. Also, a lighting device, comprising a shield element and at least a first light source, the shield element comprising regions that define an opening, the first light source within a space defined by portions of the shield element and the opening. Also, a shield element.

Abstract: A carrier substrate for carrying an OLED in manufacturing process is disclosed. The carrier substrate includes a substrate and an attracted layer disposed on a surface of the substrate, wherein the attracted layer includes a resin layer and multiple magnetic nanoparticles distributed in the resin layer. A manufacturing method for the same is also disclosed. When manufacturing an OLED, the attracted layer receives the attraction force provided by the attraction body so that the deformation of the substrate for carrying an OLED in manufacturing generating by drooping because of gravity force can be canceled out or decreased in order to avoid a shadow effect and a color mixing.

Abstract: A lighting system comprises a light source for providing a light beam of directed non-diffused light with a first correlated color temperature along a main light beam direction; and a lamp shade-like structure comprising a bottom unit to be illuminated from the light source at one side and a screen structure provided at an opposite side, the bottom unit and the screen structure defining a light passage. The bottom unit comprises a diffused light generator for generating diffused light at a second correlated color temperature, which is larger than the first correlated color temperature, is at least partially transparent for the directed non-diffused light of the light beam, and is configured such that at least a divergent light beam portion of the light beam enters the light passage; and the screen structure is spatially oriented with respect to the main light beam direction of the divergent light beam portion.

Abstract: A light bulb apparatus has a LED plate, a cap, a driver circuit and a graphite cup. The graphite cup has a platform part, a container part and a cap part. The platform part is attached to the LED plate. The container part is used for storing the driver circuit and the cap part is used for connecting to the cap so as to install the light bulb apparatus in a standard Edison socket. The graphite cup is molded with a mixed material. The mixed material includes graphite material and is non-conductive.

Abstract: Thermal energy exposed at the outer surface of an information handling system housing is managed by spreading the thermal energy across the housing X and Y axes while restricting heat transfer from the housing at the Z axis. For example, a graphene outer surface couples to an aerogel substrate strengthened by a carbon fiber laminate. The graphene spreads thermal energy that escapes through the housing across the housing outer surface to limit the impact of thermal energy at any particular location, such as proximate to the location of a processor.

Abstract: The present invention relates to a decorative glass light having a light base, a light body and a light shade, wherein a heat-radiating tube and a PCB are sheathed in the light body, a LED board is placed at a top of the light body, one end of the PCB is connected to the LED board through wires, wires connected to the other end of the PCB pass through a PCB protection board.

Abstract: Various embodiments are directed to an adjustable light fixture and method of installing the same. Various embodiments of the adjustable light fixture comprise a light head comprising a light source, a lens, and a frame; a socket base configured to be secured relative to a socket of a light assembly; and an extender located between the light head and the socket base and configured to move between an extended configuration and a compressed configuration. In various embodiments, the adjustable light fixture is installed by engaging the socket base with a corresponding socket of a light assembly, and adjusting the extender toward the compressed configuration.

Abstract: An LED display package includes an LED display assembly, processing and graphics electronics, an LED heatsink, and a thermal isolation component. The LED display assembly includes a plurality of LEDs. The processing and graphics electronics are configured to drive the LED display assembly. The LED heatsink thermally contacts the LED display assembly, and is disposed between the LED display assembly and the processing and graphics electronics. The thermal isolation component is between the LED heatsink and the processing and graphics electronics and is arranged to thermally isolate the processing and graphics electronics from the LED heatsink.

Abstract: A luminaire includes a housing having a top wall and a sidewall. A first fin extends from the top wall and a second fin extends from the side wall. A light emitter assembly having a heat sink includes a third fin extending from the heat skink configured to mate with the first and second fins. The luminaire can also include a light emitter assembly that can be selectively connected to the housing in multiple orientations.

Abstract: A lighting device or a lamp bulb (100, 200) with a smooth appearance comprises at least one light source (101); a heat sink component (104, 204), having a bottom (1043) and a side wall (1044) extending from the bottom (1044), wherein the bottom (1043) comprises a protrusion (1041) and wherein the at least one light source (101) thermally contacts the protrusion (1041) of the heat sink component (104, 204); and a cover provided on the sidewall (1044) opposite to the bottom(1043), thereby defining an air chamber (1051, 2051) between the cover, the side wall (1044), the bottom (1043) and the protrusion (1041).

Abstract: An omnidirectional light emission LED lamp, comprising an electrical connector, a connecting piece, at least two translucent cover and LED light-emitting elements fixed on the translucent covers. The plurality of translucent covers interconnects and encloses into an overall lampshade shape, and a channel is enclosed between the translucent covers. Openings at the two ends of the channel are in communication with the outside, the connecting piece is fixed on the translucent covers at least one end of the channel, a cavity is formed within the connecting piece, the cavity is in communication with the channel, and ventilation holes in communication with the outside are provided on the connecting piece. The LED lamp implements 360 degree omnidirectional illumination, and has high light-emitting efficiency, good heat dissipation performance and a long service life.