Abstract: A radiation-emitting device is provided which comprises a substrate (10), at least one organic functional layer (100) on the substrate (10) and a second electrode (80) on the at least one organic functional layer (100). The substrate (10) includes a plastics film (1) and a metal film (3), and the metal film (3) is arranged between the plastics film (1) and the at least one organic functional layer (100) and is set up as a first electrode. A method is additionally provided for producing such a device.

Abstract: Provided is an LED package. It is easy to control luminance according to the luminance and an angle applicable. Since heat is efficiently emitted, the LED package is easily applicable to a high luminance LED. The manufacturing process is convenient and the cost is reduced. The LED package includes a substrate, an electrode, an LED, and a heatsink hole. The electrode is formed on the substrate. The LED is mounted in a side of the substrate and is electrically connected to the electrode. The heatsink hole is formed to pass through the substrate, for emitting out heat generated from the LED.

Abstract: An optoelectronic semiconductor part comprising a light source, a housing and electrical connections, wherein the optoelectronic semiconductor part comprises a component which contains metal phosphate, and wherein the metal phosphate is substantially alkali-free and halogen-free.

Abstract: A mounting board including a pair of patterned electrodes, a lower surface and an upper surface opposed thereto on which a substrate of an electronic component is to be mounted, a pass-through hole penetrating through the upper surface and the lower surface, and a peripheral side surface that defines the pass-through hole. The pass-through hole includes a plurality of penetrating grooves that are cut into the mounting board and penetrate through the upper and lower surfaces. The plurality of penetrating grooves electrically split the pair of patterned electrodes. The pair of patterned electrodes is partly positioned inside the peripheral side surface, and a connection portion connecting the at least one pair of patterned electrodes and at least one pair of patterned electrodes provided on the upper surface of the substrate of the electronic component is to be disposed inside the peripheral side surface that defines the pass-through hole.

Abstract: To provide a light emitting device that makes it possible to form a surface light emitting apparatus of less unevenness in luminance. The light emitting device 10 of the present invention comprises a light emitting element 30, connecting terminals 21a, 21b connected with the light emitting element 30, a package 12 which has a recess 40 wherein the light emitting element 30 is mounted and from which a part of each connecting terminal 21a, 21b is projected outward, an opening 41 of the recess 40 being elongated in one direction, wherein both side walls of the recess 40 positioned in the longitudinal direction of the recess 40 are inclined surface 43, an angle ? between both the inclined surfaces 43 being 90 degrees or more. In the light emitting device 10 of the present invention, light emitted by the light emitting element 30 is spread sufficiently in the longitudinal direction of the opening 41 so as to produce a band-shaped beam.

Abstract: A light emitting diode having a mount lead having a cup and a lead, an LED chip mounted in the cup of said mount lead with one of electrodes being electrically connected to said mount lead, a coating material filling the cup of said mount lead to cover said LED chip; a molding material covering said LED chip, said coating material and the cup of said mount lead, and a phosphor absorbing a part of light emitted by said LED chip and emitting light of wavelength different from that of the absorbed light, wherein said phosphor is located in said coating material, and wherein said molding material is shaped to form a concave lens.

Abstract: Disclosed is an organic light-emitting display device capable of preventing the occurrence of cracks at corner regions of an adhesive layer. The organic light-emitting display device includes a first substrate including a plurality of pixels and a second substrate. A thin film transistor (TFT) located at each pixel of the first substrate. A pixel electrode is also located at each pixel. An organic light-emitting unit that emits light is coupled to each pixel electrode. A common electrode is electrically coupled to each organic light-emitting unit. An adhesive layer is coupled to the common electrode. The adhesive layer attaches the first and second substrates. The corner regions of the adhesive layer are rounded in order to control the creation of cracks in the adhesive layer and thereby prevent moisture from entering the active area of the device.

Abstract: An optoelectronic component (1) is proposed that comprises a housing body (2) and at least one semiconductor chip (8) disposed thereon, said housing body having a base part (13) comprising a connector body (16), on which a connecting conductor material (6, 7) is disposed, and said housing body having a reflector part (14) comprising a reflector body (23), on which a reflector material (9) is disposed, wherein said connector body and said reflector body are preformed separately from each other and said reflector body is disposed on said connector body in the form of a reflector top.

Abstract: Disclosed is a light emitting diode package having a simplified configuration and high color reproducibility. The light emitting diode package includes a package body, first and second light emitting diode chips received in the package body, a lead frame electrically connected to the first and second light emitting diode chips, the lead frame serving to adjust color of light according to the ratio of current of the first and second light emitting diode chips, and a light conversion layer configured to cover the first and second light emitting diode chips, the light conversion layer serving to convert light emitted from the first and second light emitting diode chips into a particular wavelength of light so as to emit a desired wavelength of light.

Abstract: A method for fabricating a light emitting diode includes the steps of providing a thermal conductive substrate having an electrical isolation layer, forming an anode via and a cathode via side by side on a first side of the substrate part way through the substrate, forming an anode through interconnect in the anode via and a cathode through interconnect in the cathode via, thinning the substrate from a second side of the substrate to the anode through interconnect and the cathode through interconnect, and mounting a LED chip to the first side in electrical communication with the cathode through interconnect and the anode through interconnect.

Abstract: Provided is a metal foil laminate that: has heat resistance; has high reflectance in the visible light range; has little decrease in reflectance in environments with a high-temperature thermal load; is compatible with large surface areas; and can be used for printed circuit boards for mounting LEDs that have excellent adhesion with metals. The metal foil laminate is characterized in that: a laminate has metal foil on at least one side of a resin layer (A) containing a polyorganosiloxane and an inorganic filler; the 90° peel strength between said resin layer (A) and said metal foil is at least 0.95 kN/m, and the mean reflectance at wavelengths of 400 to 800 nm on the surface that is exposed when the resin layer (A) is exposed by peeling and removing said metal foil is at least 80%; and the decrease in the reflectance at a wavelength of 470 nm after being treated with heat for 10 minutes at 260° C. is not more than 5%.

Abstract: A light-emitting device package and a method of manufacturing the light-emitting device package. The light-emitting device package includes a wiring substrate; a Zener diode mounted on a first region of the wiring substrate; a light-emitting device chip mounted on the first region and a second region of the wiring substrate; and a molding member for fixing at least a portion of the wiring substrate, wherein the Zener diode is embedded in the molding member.

Abstract: A method of manufacture of an integrated circuit packaging system includes: forming an integrated circuit device having a device contact surface, a device lateral side, and a device backside opposite the device contact surface; forming a device shell, having a shell lip, contiguous with the device backside and the device lateral side, the shell lip adjacent to and coplanar with the device contact surface; attaching a substrate to the integrated circuit device, the device shell between the integrated circuit device and the substrate; and forming an encapsulation on the substrate and covering the integrated circuit device and the device shell.

Abstract: A light emitting diode (LED) package structure including a leadframe, a housing, a LED chip and a light-transmissive encapsulant is provided. The leadframe has a first electrode and a second electrode separated from each other. The housing wraps the first electrode and the second electrode and includes a recess having a bottom and a sidewall. The bottom of the recess has a cover layer covering the leadframe and having an opening exposing an end of the first electrode, an end of the second electrode and a spacer disposed therebetween and connected thereto wherein the spacer, the end of the first electrode and the end of the second electrode are substantially coplanar. The LED chip is disposed in the recess and electrically connected to leadframe. The light-transmissive encapsulant is filled in the recess.

Abstract: In one embodiment, the light emitting device package includes a package body, electrodes attached to the package body, and at least two light emitting devices electrically connected to the electrodes. Each light emitting device emits light of a different color from the other light emitting devices. A protective layer is formed over the at least two light emitting devices, and a phosphor layer formed over the protective layer. Other embodiments include other structures such a individual phosphor layers on each light emitting device. And, a light apparatus including a package may include a single driver driving the light emitting devices of the package.

Abstract: An optoelectronic component includes a housing. At least one semiconductor chip is arranged in the housing. The semiconductor chip includes an active layer suitable for producing or detecting electromagnetic radiation. A casting compound at least partially surrounds the semiconductor chip. Reflective particles are embedded in the casting compound.

Abstract: A semiconductor light emitting device has a support substrate, a light emitting element, and underfill material. The light emitting element includes a nitride-based group III-V compound semiconductor layer contacted via a bump on the support substrate. The underfill material is disposed between the support substrate and the light emitting element, the underfill material comprising a rib portion disposed outside of an end face of the light emitting element to surround the end surface of the light emitting element.

Abstract: Embodiments of a light emitting device and a method for fabricating the same are provided. The light emitting device comprises a cavity and one or more light emitting elements. The cavity is formed to a depth of 450 ?m or less, and the light emitting elements are installed in the cavity. A fabricating method includes forming a package body having a cavity with a depth of 250 ?m to 450 ?m and at least one lead frame disposed at the bottom surface of the cavity, mounting at least one light emitting element on the lead frame, and molding a molding member in the cavity.

Abstract: A semiconductor light-emitting device includes a lead frame, a semiconductor light-emitting element mounted on the top surface of the bonding region, and a case covering part of the lead frame. The bottom surface of the bonding region is exposed to the outside of the case. The lead frame includes a thin extension extending from the bonding region and having a top surface which is flush with the top surface of the bonding region. The thin extension has a bottom surface which is offset from the bottom surface of the bonding region toward the top surface of the bonding region.

Abstract: A method for fabricating light emitting diode packages includes: providing a light emitting diode wafer which has a plurality of light emitting diode chips, each of the light emitting diode chips including a semiconductor unit that has p-type and n-type electrode regions, and two electrodes; forming a light-transmissive insulating layer on the light emitting diode chips; forming a reflective metal layer on a portion of the light-transmissive insulating layer; forming a layer of insulating material on the light-transmissive insulating layer and the reflective metal layer, and performing exposing and developing treatments to form the layer of insulating material into a plurality of protective insulating structures; forming a conductor-receiving insulating layer on the light-transmissive insulating layer and the protective insulating structures; and performing a cutting process to obtain a plurality of light emitting diode packages each having at least one of the light emitting diode chips.

Abstract: Adhesive-free assembly of the substrate and reflector components of a semiconductor die package is achieved by injection molding the reflector onto a surface of the substrate or by molding the reflector separate from the substrate and securing it in place on the substrate through deformation of a portion of the reflector. The reflector may be made reflective either by molding the reflector using a light scattering material or through the addition of a reflective element, such as a piece of foil material that is secured to the reflector. A variety of interchangeable reflective elements having different surface shapes, and thus different light reflecting properties, may be made.

Abstract: The invention relates to an arrangement including optically transparent and/or functional components. It is desirable for many applications to achieve a high functionality and variability in the utilization of electronic components over a very small area or with a small space requirement for such a design. In an arrangement in accordance with the invention, an organic electronic component and at least one further organic or inorganic electronic component are arranged layer-wise, stacked over one another, on a substrate. In this respect, planar electrically conductive electrodes at the surfaces of the components are formed such that the components are electrically connected in series and the components are each individually electrically controllable via the electrodes in accordance with their polarities.

Abstract: An LED package structure includes a base and two diodes. The base includes an insulating layer having an outer peripheral edge, and a conductive bottom layer disposed on a bottom face of the insulating layer and having an outer peripheral edge spaced from the outer peripheral edge of the insulating layer at a predetermined distance. The insulating layer is formed with two spaced-apart through holes, and cooperates with the conductive bottom layer to form first and second cavities. The diodes are disposed within the first and second cavities, respectively. A transparent encapsulant covers the base and the diodes.

Abstract: An object is to reduce variations in programming behavior from memory element to memory element. Furthermore, an object is to obtain a semiconductor device with excellent writing characteristics and in which the memory element is mounted. The memory element includes a first conductive layer, a metal oxide layer, a semiconductor layer, an organic compound layer, and a second conductive layer, where the metal oxide layer, the semiconductor layer, and the organic compound layer are interposed between the first conductive layer and the second conductive layer; the metal oxide layer is provided in contact with the first conductive layer; and the semiconductor layer is provided in contact with the metal oxide layer. By use of this kind of structure, variations in programming behavior from memory element to memory element are reduced.

Abstract: A method for providing, on a carrier (40), an insulative spacer layer (26) which is patterned such that a cavity (27) is formed which enables connection of an optical semiconductor element (41) to the intended conductor structure (22) when placed inside the cavity (27). The cavity (27) is formed such that it, through its shape, extension and/or depth, accurately defines a location of an optical element (45; 61) in relation to the optical semiconductor element (41). Through the provision of such a patterned insulative spacer layer, compact and cost-efficient optical semiconductor devices can be mass-produced based on such a carrier without the need for prolonged development or acquisition of new and expensive manufacturing equipment.

Abstract: A light emitting device includes a base body forming a recess defined by a bottom surface and a side wall thereof, a conductive member whose upper surface being exposed in the recess and whose lower surface forming an outer surface, a protruding portion disposed in the recess, a light emitting element mounted in the recess and electrically connected to the conductive member, and a sealing member disposed in the recess to cover the light emitting element. The base body has a bottom portion and a side wall portion integrally formed of a resin, an inner surface of the side wall portion is the side wall defining the recess and has a curved portion, and the protruding portion is disposed in close vicinity to the curved surface. With this arrangement, a thin and small-sized light emitting device excellent in light extraction efficiency and reliability can be obtained.

Abstract: Provided are a phosphor, a phosphor manufacturing method, and a white light emitting device. The phosphor is represented as a chemical formula of aMO-bAlN-cSi3N4, which uses light having a peak wavelength in a wavelength band of about 350 nm to about 480 nm as an excitation source to emit visible light having a peak wavelength in a wavelength band of about 480 nm to about 680 nm. (where M is one selected from alkaline earth metals (0.2?a/(a+b)?0.9, 0.05?b(b+c)?0.85, 0.4?c/(c+a)?0.9)).

Abstract: A mortar-shaped or funnel-shaped light emitting device (50) includes: a substrate (20); at least one LED chip (25) die-bonded to the substrate (20); and a wavelength converting portion (40) covering said at least one LED chip (25); at least four planes uprising from the substrate (20); and a lens having a top surface (10a) facing the substrate (20), the four planes being positioned in four directions, respectively, in such a manner as to surround said at least one LED chip (25), and the top surface (10a) having a concave portion.

Abstract: A semiconductor device includes a wafer level substrate having a plurality of first conductive vias formed through the wafer level substrate. A first semiconductor die is mounted to the wafer level substrate. A first surface of the first semiconductor die includes contact pads oriented toward a first surface of the wafer level substrate. A first encapsulant is deposited over the first semiconductor die. A second semiconductor die is mounted to the wafer level substrate. A first surface of the second semiconductor die includes contact pads oriented toward a second surface of the wafer level substrate opposite the first surface of the wafer level substrate. A second encapsulant is deposited over the second semiconductor die. A plurality of bumps is formed over the plurality of first conductive vias. A second conductive via can be formed through the first encapsulant and connected to the first conductive via. The semiconductor packages are stackable.

Abstract: An LED lighting device A1 includes a plurality of LED chips 32, an LED unit 2 in which the LED chips 32 are mounted, and a mount 1 holding the LED unit 2. This arrangement allows the appearance or structure of the LED lighting device to be adapted for various applications. For instance, the LED lighting device may be mounted on an indoor ceiling to illuminate the floor surface or an upper part of a wall surface.

Abstract: A method for producing a light emitting diode arrangement. A plurality of LED modules (110, 120, 130) are provided, which in each case comprise at least one radiation emitting semiconductor component (1000) on a carrier body (1300). At least one separately fabricated connection carrier (200) is provided. The LED modules are arranged in such a way that they are adjacent to one another in pairs. A mechanically stable and electrically conductive connection between the carrier bodies of two LED modules is produced by means of the connection carrier. Furthermore, a light emitting diode arrangement is disclosed.

Abstract: A light emitting device of the present invention has a package constituted by a molded article having a light emitting face, a bottom face that is contiguous with the light emitting face, and a rear face that is on the opposite side from the light emitting face, and a pair of leads that are partially embedded in the molded article, protrude from the bottom face, and have ends that bend toward either the light emitting face or the rear face, and a light emitting element that is disposed on one of the pair of leads, the molded article has a front protruding part that protrudes on the light emitting face side, and a rear protruding part that protrudes on the rear face side, between the leads on the bottom face.

Abstract: A semiconductor substrate having a semiconductor device formable area, wherein a reinforcing part, which is thicker than the semiconductor device formable area and has a top part of which surface is flat, is formed on an outer circumference part of the semiconductor substrate, and an inner side surface connecting the top part of the reinforcing part and the semiconductor device formable area has a cross-sectional shape of which inner diameter becomes smaller as being closer to the semiconductor device formable area.

Abstract: Embodiments include a light emitting device package. The light emitting device package comprises a housing including a cavity; a light emitting device positioned in the cavity; a lead frame including a first section electrically connected to the light emitting device in the cavity, a second section, which penetrates the housing, extending from the first section and a third section, which is exposed to outside air, extending from the second section; and a metal layer positioned on an area defined by a distance which is distant from the housing in the second section of the lead frame.

Abstract: Several embodiments of light emitting diode packaging configurations including a substrate with a cavity are disclosed herein. In one embodiment, a cavity is formed on a substrate to contain an LED and phosphor layer. The substrate has a channel separating the substrate into a first portion containing the cavity and a second portion. A filler of encapsulant material or other electrically insulating material is molded in the channel. The first portion can serve as a cathode for the LED and the second portion can serve as the anode.

Abstract: A mounting substrate for a semiconductor light emitting device includes a solid metal block having first and second opposing metal faces. The first metal face includes an insulating layer and a conductive layer on the insulating layer. The conductive layer is patterned to provide first and second conductive traces that connect to a semiconductor light emitting device. The second metal face may include heat sink fins therein. A flexible film including an optical element, such as a lens, also may be provided, overlying the semiconductor light emitting device.

Abstract: A semiconductor device includes: a semiconductor element; a wiring board including a connection terminal to be electrically connected to the semiconductor element; and a metal plate disposed between the semiconductor element and the wiring board; wherein the metal plate is provided with an opening for exposing the connection terminal to the semiconductor element.

Abstract: Disclosed is a light emitting device package. The light emitting device package includes a substrate comprising a recess, a light emitting chip on the substrate and a first conductive layer electrically connected to the light emitting chip. And the first conductive layer includes at least one metal layer electrically connected to the light emitting chip on an outer circumference of the substrate.

Abstract: Provided are a light emitting device, a light emitting device package, and a lighting apparatus. The light emitting device includes: an n-type semiconductor layer including a first area and a second area in a plane; an n-type contact layer disposed on the n-type semiconductor layer and has a first thickness in the first area and a second thickness in the second area; an undoped semiconductor layer disposed on the n-type contact layer having the first thickness in the first area; an active layer disposed on the undoped semiconductor layer in the first area; a p-type semiconductor layer disposed on the active layer in the first area; a first electrode disposed on the n-type contact layer having the second thickness in the second area; and a second electrode disposed on the p-type semiconductor layer.

Abstract: A light-emitting device having a plurality of leads, a body, a light source die, a dark layer, and a substantially transparent encapsulant is disclosed. The dark layer absorbs a substantial portion of ambient light. The light source die may be a top emitting die. The light-emitting devices may be suitable for applications such as a large scale electronic display where each pixel is represented by each light-emitting device. The dark layer may contribute towards high contrast ratio by absorbing substantial amount of ambient light falling thereon.

Abstract: A light-emitting device which emits light omnidirectionally is provided. A light-emitting device according to the present invention includes: a package which is translucent; an LED provided in a recess in the package; and a sealing member for sealing the LED and packaging the recess; and the recess includes a bottom surface on which the LED is mounted and a side surface surrounding a bottom surface, and light emitted by the LED is transmitted inside the package through the bottom surface and the side surface of the recess and is emitted to outside of the package from the back surface and the side surface of the package.

Abstract: A light-emitting diode packaging structure includes a thermally conductive substrate; a circuit layer provided on one surface of the substrate and having an electric connection element; at least one chip mounted on the circuit layer to electrically connect to the electric connection element; a light-reflective case enclosing at least part of the substrate and being formed of a window, via which light emitted by the chip is projected outward; and a light-pervious colloidal seal fitted in the window of the case to form a protection around the chip. With the above structure, heat produced by the chip during operation thereof may be effectively radiated and dissipated via the thermally conductive substrate.

Abstract: Provided are a light emitting device and a light emitting device package. According to the light emitting device, a light emitting part and an electro-static discharge (ESD) protection part are disposed on a conductive support member. A connection layer electrically connects a first conducitve type semiconductor layer of the light emitting part to a second conductive type semiconductor layer of the ESD protection part. A ptrtection member is disposed on the connection layer and the ESD protection layer.

Abstract: A thin multi-layer LED array engine is provided, which includes a substrate having a phosphor layer and a silica gel protection layer formed thereon. The phosphor layer is disposed on LED dices and makes direct contact with the substrate, and the silica gel protection layer is disposed on the phosphor layer. The LED dices are covered with the phosphor layer, and thereby the phosphor particles in the phosphor layer can be uniformly dispersed around the LED dices, so that the narrow color temperature distribution can be achieved. Furthermore, the phosphor layer makes direct contacts with the substrate, and thereby heat generated in the phosphor layer can be effectively dissipated through the substrate, and thereby the reliability of the optical components can be increased.

Abstract: A Plastic Leaded Chip Carrier (PLCC) package is disclosed. The PLCC package enables a narrow viewing angle without requiring a second lens. In particular, the PLCC package is provided with a reflector cup having multiple stages where the geometry or some other characteristic of one stage is different from the geometry or some other characteristic of another stage.

Abstract: The present invention discloses a light-emitting diode (LED) package structure, which includes a housing, a first electrode plate, a second electrode plate, a light-emitting diode, and a voltage regulation diode. The housing has a top surface forming a cavity, and the cavity contains therein a wall that divides the cavity into a light emission section and a voltage regulation section. By separately arranging the light-emitting diode and the voltage regulation diode in two different sections of the light emission section and the voltage regulation section, the present invention prevents the voltage regulation diode from affecting light flux of the light-emitting diode by absorbing light, thereby enhancing overall lighting performance of the LED package structure.

Abstract: A method for forming a light-emitting device of the present application comprises providing a wafer; forming a first plurality of light-emitting elements on the wafer; providing a first connection structure to connect each of the first plurality of light-emitting elements; and applying a current flow to one of the first plurality of light-emitting elements for testing at least one electrical property of the light-emitting element while no current flow is applied to the remaining of the first plurality of light-emitting elements.

Abstract: A housing for an optoelectronic component comprises a housing body and first and second electrical terminal strips. The first and second terminal strips extend in part inside the housing body and are guided out of the housing body at a first side face. Outside the housing body the two terminal strips are bent in such a way that they comprise a first portion extending at an angle to the first side face, and a second portion (11d, 12d) extending along and spaced from the first side face. A method for producing such a housing is also described.

Abstract: A light emitting diode includes a thermal conductive substrate having at least one electrical isolation layer configured to provide vertical electrical isolation and a heat transfer path through the substrate from a front side (first side) to a back side (second side) thereof. The light emitting diode includes an anode having a through interconnect, and a cathode having a through interconnect, which are arranged side by side on the substrate. The light emitting diode also includes a LED chip mounted to the substrate between the anode and the cathode.

Abstract: The invention relates to a high power LED package, in which a package body is integrally formed with resin to have a recess for receiving an LED chip. A first sheet metal member is electrically connected with the LED chip, supports the LED chip at its upper partial portion in the recess, is surrounded by the package body extending to the side face of the package body, and has a heat transfer section for transferring heat generated from the LED chip to the metal plate of the board and extending downward from the inside of the package body so that a lower end thereof is exposed at a bottom face of the package body thus to contact the board. A second sheet metal member is electrically connected with the LED chip spaced apart from the first sheet metal member for a predetermined gap, and extends through the inside of the package body to the side face of the package body in a direction opposite to the first sheet metal member. A transparent sealant is sealingly filled up into the recess.