Abstract: The present invention concerns a lighting substrate that supports an array of lights, and in particular small decorative lights. The invention also concerns a lighting arrangement incorporating the lighting substrate together with an array of lights.

Abstract: An LED-based lighting device and method for making the same are disclosed. The lighting device includes an LED light source mounted on a heat sink, a power adaptor, and a controller. The power adaptor is configured to be interchangeable with a conventional incandescent bulb power adapter. The controller provides an average current to the LED light source when power is coupled to the device via the power adaptor. The average current causes the LED light source to generate light of a predetermined standard intensity that is substantially independent of variations in the LED light source from device to device. In one aspect of the invention, the LED light source includes a plurality of LEDs connected in series, the LEDs are bonded to the heat sink and connected to one another in series by wire bonds and to conducting traces on the heat sink.

Abstract: A semiconductor light source for illuminating physical spaces can include a lead frame with multiple facets. Each facet can have one or more semiconductor light emitting devices located on it.

Abstract: Concatenatable lighting fixtures, each comprising a unitary cover member having a circuit board mounting platform integrally formed with suitable heat sinking and which mounts onto a cooperating base chassis. In one embodiment, the circuit board mounting platform extends farther from one end of the cover member than the other so as to facilitate placement of LEDs in a fashion which enhances lighting uniformity and minimizes dark spots. In one embodiment, first and second guide members may be positioned in respective opposite ends of adjacent fixtures, each guide member having a plurality of extending fingers with a flexible electrical conductor-carrying conduit disposed between the respective opposite ends and retained in position by the fingers.

Abstract: An LED light device with a changeable geometric system has locks by which at least one LED or LED-unit installed within a housing-unit or joint-may be connected to deliver electric signals from a power source to desired LEDs. The LED light device's geometry will be changed when any variation is made to the positions of the original housing-units or joints.

Abstract: A string of lights is provided. The string of lights may include a plurality of light sources, wherein the light sources are integrated into the string of lights and are embedded in a support part of the string of lights.

Abstract: An LED lamp assembly includes a pair of LED lamps facing opposite directions. Each LED lamp includes a heat sink having a heat absorbing portion and a heat dissipating portion. The heat absorbing portion has opposite first and second surfaces. The heat dissipating portion extends rearwards from the first surface of the heat absorbing portion. An outmost end of the heat dissipating portion defines a plurality of apertures and is located beyond an outmost end of the heat absorbing portion. The heat dissipating portions of the heat sinks are oriented towards each other and define a channel therebetween. The LED modules are mounted at the second surfaces the heat absorbing portions. Heat generated by the LED modules is absorbed by the heat absorbing portions and then transferred to the apertures and the channel via the heat dissipating portions, from where the heat is dissipated to surrounding air.

Abstract: A light module is provided and includes a main body and at least an LED. The main body comprises an outer surface and at least a bending portion protruding therefrom, wherein the LED is disposed on the bending portion.

Abstract: A light source device is disclosed, which involves forming a plurality of carrier planes on a substrate with at least one of the carrier planes forming an angle relative to the substrate, and respectively mounting LEDs on the carrier planes and electrically connecting the LEDs with the carrier planes so as to obtain a preferred light distribution effect, thereby eliminating the need of additional light control element in the prior art and enhancing light emitting efficiency of the light source device.

Abstract: A foldable, rechargeable light emitting diode (LED) pocket light is disclosed. The light includes a first compartment, a second compartment and a hinge element. The first compartment has a housing, a plurality of LED lights, a rotatable hinge, and a hook for hanging the light. The second compartment includes a housing, a member for receiving the rotatable hinge and a power source. The light also includes an activating member and circuitry for activating the LED lights.

Abstract: A light emitting diode (LED) module including a carrier, a first connector, a plurality of second connectors and a plurality of LEDs is provided. The carrier has a first edge and a plurality of second edges. The first connector is disposed on the first edge of the carrier and electrically connected to the carrier. The second connectors are disposed on the second edges and electrically connected to the carrier respectively. Each of the second connectors may correspond and be electrically connected to the first connector of the other LED module. The LEDs are disposed on the carrier and electrically connected to the carrier.

Abstract: An LED lamp includes a lamp body, a casing connecting the lamp body and a position post connecting the casing. The lamp body includes a plurality of lamp modules and at least a bracket. Each of the lamp modules includes a heat sink and an LED module attached to the heat sink. The lamp body can be arranged in multi forms by the at least a bracket connecting different numbers of the lamp modules together. The lamp body can have one of the following forms: an L-shaped form, a U-shaped form and a square, loop-shaped form.

Abstract: An LED light module of uniformly mixed light is provided. The LED light module has a plurality of shifted-disposed LED packages, arranged as a polygon, disposed on a substrate. Each of the shifted-disposed LED packages includes a base, and an LED die disposed aside from a center of the base. The light emitted from the shifted-disposed LED package is asymmetrically dispersed and is tilted to a predetermined direction. Therefore, the lights from the shifted-disposed LED packages are centralized and uniformly mixed as white light.

Abstract: An LED lamp comprises a lamp housing, a heat sink made of metal and mounted at a bottom side of the lamp housing, a plurality of LED modules, and a vapor chamber having a bottom surface thereof attached to a top surface of the heat sink and having a top surface thereof to which the LED modules are attached, a working liquid is sealed in the vapor chamber. The vapor chamber defines a sealed chamber therein, and the working liquid is phase changeable liquid and is sealed in the sealed chamber. A plurality of ribs is arranged in the vapor chamber for strengthening an integrity of the vapor chamber, and the ribs divide the sealed chamber into a plurality of communicating spaces.

Abstract: A method of producing a lamp, including: mounting light emitting junctions in respective receptacles; mounting the receptacles on a curved support structure so as to form a three-dimensional array; and placing the light emitting junctions in electrical connection with the support structure.

Abstract: A lighting device includes a cover, a cap, a central post having opposite ends coupled to the cover and the cap respectively, and a plurality of first and second frames. The cover and the cap both form a plurality of circumferentially distributed slots opposite to each other. The first and second frames have ends respectively fit into the slots of the cover and the cap and each frame carries at least one light-emitting diode. As such, a light-emitting diode lighting device that is hollow, light-weighted, and exhibiting excellent heat dissipation is formed.

Abstract: Multiple light emitting device modules can be configured to illuminate in multiple different directions, while avoiding deterioration of radiation efficiency by use of fins. In a lighting fixture, multiple light emitting device modules can each have fins for radiating heat generated by the light emitting device. The multiple light emitting device modules can be arranged in such a manner that a main optical axis line of one light emitting device module and main optical axis lines of any other light emitting device modules form an angle larger than zero degrees, or are in a skewed position, and the fins can be arranged in such a manner that all the fins are parallel with respect to a vertical plane and roots of the fins are positioned at the same level as or lower than tips of the fins.

Abstract: This device includes boards housing a large number of LEDs electrically connected with the tracks of a printed circuit, arranged in the board according to an equilateral triangular distribution and separated from one another at a fixed distance ‘a’, these light emitting diodes project beams of light interlacing from a certain distance ‘d’ of the board, giving even mass of light to the device at the above mentioned distance ‘d’, without points or appreciable zones of shadow. The boards are equipped with interlocking sections on both edges which are used as a guide for centering for the side connection of successive boards, as in a jigsaw puzzle, and the formation of a lighting panel having a larger surface.

Abstract: A decorative light string comprises a plurality of spaced illuminatable LED light bulbs which are interconnected by an electrically conductive string having a plug for providing the power to illuminate the bulbs. Each bulb has a cap mounted to the conductive string. The cap has a portion made of a transparent/translucent material to permit light to pass therethrough. The cap also has a light blocking portion to reflect and concentrate the light passing through the light bulb. The same features could be included in an individual LED light bulb for industrial, commercial or home usage.

Abstract: An LED lamp includes a bracket and a heat sink secured to the bracket. The heat sink has a base and a plurality of mounting members and platforms extending upwardly from the base. A plurality of LED modules are mounted on the mounting members and the platforms. A pair of LED modules located beside and adjacent to a central line of the base is disposed slantwise and face inwardly to each other. Another pair of LED modules at two opposite lateral portions of the base of the heat sink is disposed slantwise and face outwards. The LED modules mounted on the platforms face upwardly.

Abstract: A lighting array comprising a grid to be formed into multiple positions with at least two cells, at least one interconnected wall between each pair of cells, and an opening in each cell. The lighting array further comprises at least a first holding arm secured to each cell, a second holding arm secured to each cell opposite the first holding arm, a rigid housing removably insertable into each cell, at least one light supported within each rigid housing and a power supply connected to each light.

Abstract: An LED module for use in sign letter channel lights comprises a substrate, a reflector mounted on the substrate, an LED mounted within the reflector on the substrate and a Zener diode shunt element connected in parallel across the LED, a printed circuit board on the substrate, wherein the LED is mounted on the printed circuit board, and an insulating cover. The module may be entirely encapsulated. An LED driving protection circuit provides ground fault protection for a plurality of series connected LED modules.

Abstract: There is provided a light emitting module including: a printed circuit board; a plurality of light emitting diode chips disposed at a distance from one another on a conductive pattern formed on a top of the printed circuit board; and a connector formed on a bottom of the printed circuit board and electrically connected to the plurality of light emitting diode chips. The light emitting diode chips and the connector are optimally arranged to ensure that the light emitting module is suitably utilized as a high-density linear light source including a great number of light emitting diode chips and emits light outward with minimum loss.

Abstract: An LED safety lamp includes a cover, a heat-conductive plate thermally attached to and mounted on the cover, a heat sink thermally attached to and mounted on the heat-conductive plate, a plurality of LED modules attached to the heat sink, a transparent housing enclosing the heat sink and the LED modules and hermetically secured to the cover. The cover includes a hollow tube, a flameproof connector and a flexible component received in the hollow tube. The flexile component is depressed by the connector to expand thereby to seal the hollow tube and fix the electrical wires extending through the flexible component in position, thereby providing an excellent airproof effectiveness to the LED lamp.

Abstract: A light fixture includes a member having a substantially frusto-conical shape. A channel extends between a wide top end of the member and a narrower bottom end of the member. The member includes multiple surfaces (“facets”) disposed around its outer surface. Each facet is configured to receive one or more light emitting diodes (“LEDs”) in a linear or non-linear array. Each facet can be integral to the member or coupled to the member. The channel is configured to transfer heat generated by the LEDs through convection. Fins can be disposed within the channel, extending from the inner surface of the member to an inner channel. The fins are configured to transfer heat away from, and provide a greater surface area for convecting heat away from, the member. For example, one or both of the channels can transfer heat by a venturi effect.

Abstract: A luminaire comprised generally of a mounting plate including a plurality of mounting blocks secured to the mounting plate; and a plurality of LEDs, wherein at least one of the LEDs is positioned upon each of the mounting blocks. The mounting blocks include face portions and may be arranged in a plurality of configurations on the mounting plate.

Abstract: To achieve both uniform illumination and a reduction in the LED light sources, after simplifying illumination control of the light sources. In an illumination unit 130, when arranging LED light sources in a linear arrangement on a light source base plate 160, installation thereof will be thinned out in the center, while providing the base plate left and right ends with LED light sources 160L1 and L2 and LED light sources 160R1 and R2. The light emitted by the LED light source 160L1 and the LED light source 160R1 will be reflected by a left inside wall face 131LS and a right inside wall face 131RS respectively, and directed onto the table upper face. The light emitted by the LED light source 160L2 and the LED light source 160R2 lying towards the center zone of the light source array where the light source placement has been thinned out will be reflected by a left outside wall face 171LS and a right outside wall face 171RS respectively, and directed onto the table upper face.

Abstract: A light emitting diode (“LED”) backlight assembly. The LED backlight assembly has a bottom container which has a bottom plate and a side edge surrounding the bottom plate, a plurality of light emitting diode printed circuit boards (“LED-PCBs”) on the bottom plate, and a connector which is closely located to edge located LEDs. The connector of the LED-PCB is closely located to an LED driving board, which is disposed at a lateral space of a lateral part of the bottom container to limit a vertical thickness of the backlight light assembly.

Abstract: An LED light unit includes a tile, a plurality of discrete LED light sources, and an edge connector. The LED light sources are on and dispersed across a major surface of the tile and are electrically connected to electrical pads along an edge region of the tile. The edge connector includes a plurality of contacts that are connected to a plurality of wires extending away from the edge connector, and is configured to releasably connect to an edge of the tile so that the contacts directly connect to the pads and electrically connect the wires of the edge connector to the LED light sources. An LED lighting assembly includes a plurality of the discrete tiles mounted to a plurality of bars, and a plurality of edge connectors that are each connected to an end one of the tiles along different ones of the bars.

Abstract: A direct type backlight has a plate and a plurality of light emitting diode (LED) rows. The LED rows are disposed on the plate, and every two adjacent LED rows have a row gap positioned therebetween. The one of these gaps, which is nearest to the center of the direct type backlight, is a minimum gap.

Abstract: A light emitting diode (LED) lighting set includes an aluminum extrusion radiating base, an LED module, a light focus plate, a diaphanous cover and two electrical connectors. The LED module has a substrate settled onto the radiating base and a plurality of LED lamps electrically connected onto the substrate. The light focus plate is fixed onto the radiating base and correspondingly formed under the LED lamps. The diaphanous cover connects the radiating base and correspondingly formed under the light focus plate. The electrical connectors separately connect two ends of the radiating base and also electrically connect the substrate. The aluminum extrusion radiating base, the diaphanous cover and the two electrical connectors define a closed space together, and the LED module and the light focus plate are received in the closed space; therefore, the LED lighting set has good heat dissipating performance and the usage life-span is greatly improved.

Abstract: An adornment having a power source for articles of clothing and accessories. Such adornment includes a housing with a front compartment and rear compartment. A front panel is attached to the housing. A predetermined novelty item is securably attached within such front compartment. A plurality of light members are attached securably within such front compartment and are operably connected to such power source. A mirror is attached to the interior walls of the front compartment to create the illusion of depth. A switch mechanism disposed on the housing at a predetermined location is operably connected to the power source to energize the light members. The rear compartment accommodates a power source and is accessible from an outside of the housing by a rear panel releasably attached to the housing to remove and replace such power source as necessary. The housing is attachable to articles of clothing and accessories.

Abstract: A planar light source and a backlight unit including the same are disclosed. The planar light source includes a light emission region formed by arrangements of light emitting devices. The light emission region includes first to nth separate parts each having a center of the light emission region as one vertex (n: natural number of 2 or higher). The first separate part includes light emitting devices arranged two-dimensionally in first and second directions. A pitch in the first direction is different from a pitch in the second direction in at least a portion of the two-dimensional arrangement structure. Light emitting devices of each of the second to nth separate parts have an arrangement structure obtained by a clockwise or counter-clockwise rotation of the arrangement structure of the light emitting devices of the first separate part by an angle of 1/n×360° about the center of the light emission region.

Abstract: An exemplary light emitting module includes a main body, a first assembly portion and a second assembly portion. The main body includes a light source. The first assembly portion and a second assembly portion are arranged on two opposite sides of the main body. The first assembly portion includes a first assembly hole and a first assembly pole. The second assembly portion includes a second assembly hole and a second assembly pole.

Abstract: A side-light type backlight includes a light source having a plurality of LEDs and a light guide plate, where opposing end surfaces of the light guide plate define light incidence surfaces, with the plurality of LEDs being arranged at one of the light incidence surfaces. A number, M, of the LEDs are arranged in a longitudinal direction of the light incidence surface of the light guide plate, and are electrically connected such that there are a plurality of groups of the LEDs with each group having N LEDs mutually adjacently arranged in series. The groups are adjacently arranged in a longitudinal line, and at least one of the groups of LEDs is a separate parallel connection from an adjacent group of LEDs. The plurality of LEDs includes LEDs having a plurality of colors, and the LEDs arranged in series include LEDs having different colors.

Abstract: A light strip comprises an elongate core layer of insulating material having a plurality of light mounting apertures extending through the core layer between the two opposed faces of the core layer and receiving respective light emitting diodes therein. Two conductive elements extending in the longitudinal direction along the outer surface of the elongate core layer between which the light emitting diodes are connected. A cover layer spans in the longitudinal direction adjacent each one of the two opposed faces of the elongate core layer to enclose opposing ends of the light mounting apertures with the light emitting diodes therein.

Abstract: An LED light unit includes a tile, a plurality of discrete LED light sources, and an edge connector. The LED light sources are on and dispersed across a major surface of the tile and are electrically connected to electrical pads along an edge region of the tile. The edge connector includes a plurality of contracts that are connected to a plurality of wires extending away from the edge connector, and is configured to releasably connect to an edge of the tile so that the contacts directly connect to the pads and electrically connect the wires of the edge connector to the LED light sources. An LED lighting assembly includes a plurality of the discrete tiles mounted to a plurality of bars, and a plurality of edge connectors that are each connected to an end one of the tiles along different ones of the bars.

Abstract: A light-emitting diode module with a heat dissipating structure includes a metal substrate and a plurality of light-emitting diode dies mounted on a face of the metal substrate. A jacket has a coupling surface engaged with the other face of the metal substrate. A heat conduction pipe includes a portion received in a longitudinal hole of the jacket. The coupling surface of the jacket has an opening in communication with the longitudinal hole. A portion of an outer periphery of the portion of the heat conduction pipe is in direct, thermal contact with the other face of the metal substrate through the opening of the jacket to absorb heat generated by the light-emitting diode dies. A finned heat sink is mounted on another portion of the heat conduction pipe outside the jacket to dissipate heat transferred to the heat conduction pipe into the environment.

Abstract: A light-generating device includes a driving substrate and a plurality of light source arrays. The driving substrate has a rectangular planar shape. The plurality of light source arrays is formed on the driving substrate. The light source arrays include at least one light emitting diode to generate light in response to power being applied through the substrate, and the light source arrays are spaced apart from each other. Thus, heat generated from the light-generating device is rapidly dissipated from the light-generating device, improving brightness of the light, brightness uniformity of the light and color reproducibility of the light.

Abstract: An electrically powered decorative assembly for interior or exterior display. The decorative assembly includes a main electrical string and one or more electrically wired light emitting ornaments electrically and detachably connected to the main string. The decorative assembly may further include one or more light emitting sources electrically connected to the main string. The decorative assembly may be displayed in celebration of religious holidays and secular occasions.

Abstract: The invention discloses a high efficiency incandescent and Compact Fluorescent (CFL) bulb replacement LED lamp having a good color reproduction. The LED light bulb includes two groups of semiconductor light emitters and a luminescent material to emit four different spectrums of light. The two groups of semiconductor light emitters are enclosed around an interior wall of the light bulb housing, which has a plurality of fins at an exterior surface for effective heat dissipation. A high reflective member having a dome shape in the center is disposed under the two groups of semiconductor light emitters to redirect the emission and excitation lights from the two groups of semiconductor light emitters and recycle the backscattered light for multi-spectrum light mixing. The LED-light bulb further includes a single power line connecting to the two groups of semiconductor light emitters and a high efficiency electrical AC/DC conversion and control device.

Abstract: A light-emitting device operating on a high drive voltage and a small drive current. LEDs (1) are two-dimensionally formed on an insulating substrate (10) of e.g., sapphire monolithically and connected in series to form an LED array. Two such LED arrays are connected to electrodes (32) in inverse parallel. Air-bridge wiring (28) is formed between the LEDs (1) and between the LEDs (1) and electrodes (32). The LED arrays are arranged zigzag to form a plurality of LEDs (1) to produce a high drive voltage and a small drive current. Two LED arrays are connected in inverse parallel, and therefore an AC power supply can be used as the power supply.

Abstract: Concatenatable lighting fixtures, each comprising a unitary cover member having a circuit board mounting platform integrally formed with suitable heat sinking and which cover member mounts onto a cooperating base chassis. In one embodiment, the circuit board mounting platform extends farther from one end of the cover member than the other so as to facilitate placement of LEDs in a fashion which enhances lighting uniformity and minimizes dark spots. First and second guide members may be positioned in respective opposite ends of adjacent fixtures, each guide member having a plurality of extending fingers with a flexible electrical conductor-carrying conduit disposed between the respective opposite ends and retained in position by said fingers.

Abstract: A light-emitting-diode (LED) lamp includes a control circuit board having a control circuit and a plurality of insertion holes provided thereon; a plurality of LED units, each of which including a circuit board, a plurality of LEDs mounted on the circuit board, and terminals provided at an end of the circuit board for plugging into the insertion holes on the control circuit board to thereby electrically assemble the LED unit to the control circuit board; and a glass bulb or tube for receiving the assembled control circuit board and LED units to complete the LED lamp that can be mounted to a general lamp holder. When electricity is supplied to the LED lamp, the LEDs are driven by the control circuit to emit light for illumination. The number of LED units and of the LEDs may be adjusted according to desired illuminance.

Abstract: A lighting apparatus comprising a plurality of light modules is specified, wherein each light module includes a plurality of groups of light sources mounted on a circuit board of said light module, and said light modules are arranged in rows on a carrier of said lighting apparatus. A display device comprising such a lighting apparatus is also specified.

Abstract: A chalk holding device for marking up dry walled walls of a building uses a pole that has a chalk holder at one end wherein chalk is received within the holder and locked in place via a compression ring. The pole may be threadably attached to an additional extension pole on the end opposite the chalk holding end. A light source is attached to the pole either by clamping the light source and attaching the clamp to the pole via another clamp, via adhesion or welding, or other appropriate attachment method, or the light source is an LED ring such that the pole passes through a central opening of the LED ring with the ring attached to the pole.

Abstract: A tubular LED light source, based on a tube manufactured in a heat conducting material (1). The LED's (2) are mounted on a part of the outer surface of the tube. Thereby they conduct their heat to the tube, which transfers the heat to the surroundings by cooling fins (6) located on the other part of the outer surface of the tube. Inside the tube the control electronic (7) is placed. It is electrically connected with the LED's on the outer surface of the tube, and with connectors (10) in each end of the tube. The connectors makes it possible to install the light source in existing fluorescent tube fittings, as a direct replacement for fluorescent tubes. There is vacuum (20) inside the tube, so that no damaging condensed water is generated in cold environments. The control electronics can turn on/off and adjust the light level from LED's, and adjust the color components (RGB) of the light. Hereby different color temperatures can be generated.

Abstract: A backlight device including a light guide plate having an upper surface configured to face a liquid crystal panel, a lower surface, and at least one side surface extending in a thickness direction between the upper surface and the lower surface. The backlight device also includes a plurality of LEDs for irradiating light beams to the side surface of the light guide plate, which side surface serves as a light incidence surface. The plurality of LEDs are arranged in a plurality of rows in the thickness direction of the same side surface of the light guide plate so as to extend in a longitudinal direction of the light incidence surface. Additionally, of the plurality of LEDs, two LEDs that are electrically connected to each other in series are disposed in different rows.

Abstract: An LED lamp includes a transparent bulb, an LED module comprising a plurality of LEDs received in an inner space of the bulb, and a heat dissipation apparatus supporting and cooling the LED module. The heat dissipation device includes a heat sink having a hollow base and a plurality of fins extending from the base, a first heat conductor vertically supported by the heat sink, a second heat conductor horizontally mounted on the first heat conductor, and a heat pipe thermally connecting the heat sink, the first heat conductor and the second heat conductor together. The LEDs are positioned on the first heat conductor and the second heat conductor, respectively.

Abstract: An illuminating device with LED light source includes a circuit board and an elongated arch-sectioned transparent plate. The circuit board has at least two LED lamps arranged in line. The transparent plate is located below the circuit board and is large enough to cover all the LED lamps. The arch-sectioned transparent plate is provided on an outer surface with a plurality of curved ridges, which are parallelly and closely arranged side by side. Lights emitted from the LED lamps and passed through the arch-sectioned transparent plate are condensed by the curved ridges. Therefore, the arch-sectioned transparent plate with the curved ridges forms an area light source. That is, point light sources provided by the LED lamps are converted into an elongated area light source by the curved ridges.