Abstract: An illumination device and method of making the device uses a three-dimensional (3D) substrate on which a number of light-emitting dies are mounted. The 3D substrate is configured to define an interior region. The illumination device includes electrical traces on at least one of the exterior surface and the interior surface of the 3D substrate.

Abstract: A light source device and method of making the device uses a substrate, which may be a glass or ceramic substrate, having thru-holes for heat dissipation. The light source device includes a number of light-emitting dies that are mounted on the substrate such that each thru-hole is positioned directly below one of the light-emitting dies.

Abstract: A light emitting diode (“LED”) device that emits omni-directional light is disclosed. Such omni-directional LED device may include a LED chip capable of emitting light in all directions. In one example of one implementation, the LED chip is then assembled and sealed inside a casing, such as a glass casing or tube that is capable of emitting light in 360 degree beam pattern. Further, the anode and cathode, or P or N-type contacts, may be configured on the LED chip such that light is allowed to emit from the top and/or the bottom surface of the LED chip in the LED device and is further able to reflect outward and fill the casing or tube of the LED device with light capable of emitting omni-directionally.

Abstract: A device and method for providing illuminating light utilizes quantum dots to convert at least some of the original light emitted from a light source of the device to longer wavelength light to change the color characteristics of the illuminating light. The quantum dots may be included in the light source, a light panel and/or an optional interface medium of the device.

Abstract: The invention provides light emitting devices having a phosphor layer that are useful as sources of white light, and other applications. The invention provides a light emitting device having a laser diode and a phosphor composition positioned to receive light from the laser diode. The laser diode is adapted to emit light, and the phosphor composition is adapted to absorb light from the laser diode and emit light at longer wavelengths than the light from the laser diode.

Abstract: A light emitting diode (“LED”) device that emits omni-directional light is disclosed. Such omni-directional LED device may include a LED chip capable of emitting light in all directions. In one example of one implementation, the LED chip is then assembled and sealed inside a casing, such as a glass casing or tube that is capable of emitting light in 360 degree beam pattern. Further, the anode and cathode, or P or N-type contacts, may be configured on the LED chip such that light is allowed to emit from the top and/or the bottom surface of the LED chip in the LED device and is further able to reflect outward and fill the casing or tube of the LED device with light capable of emitting omni-directionally.

Abstract: An illumination device and method of making the device uses a three-dimensional (3D) substrate on which a number of light-emitting dies are mounted. The 3D substrate is configured to define an interior region. The illumination device includes electrical traces on at least one of the exterior surface and the interior surface of the 3D substrate.

Abstract: A light source device and method of making the device uses a substrate, which may be a glass or ceramic substrate, having thru-holes for heat dissipation. The light source device includes a number of light-emitting dies that are mounted on the substrate such that each thru-hole is positioned directly below one of the light-emitting dies.

Abstract: A New Moisture-Resistant LED Device with Ceramic Substrate is disclosed. The Moisture-Resistant LED Device with Ceramic Substrate includes a ceramic substrate having a concave cavity, a light emitting diode (“LED”) in the concave cavity, a filler body over the LED, and a window sealed at an interface with the ceramic substrate.

Abstract: A light emitting device in which a primary light generator, such as a light emitting diode (LED) or laser diode, is operable to emit a primary light that is received by a body of wavelength converting material. A portion of the primary light is absorbed by the body of wavelength converting material and is emitted as secondary light. The wavelength converting material contains phosphor nano-particles and larger phosphor particles. The phosphor nano-particles prevent transmission of primary light while the larger phosphor particles provide efficient light conversion.

Abstract: A device and method for emitting output light utilizes both quantum dots and non-quantum fluorescent material to convert at least some of the original light emitted from a light source of the device to longer wavelength light to change the color characteristics of the output light. The device can be used to produce broad-spectrum color light, such as white light.

Abstract: The invention provides light emitting devices having a phosphor layer that are useful as sources of white light, and other applications. The invention provides a light emitting device having a LED and a phosphor composition positioned to receive light from the LED. The LED is adapted to emit cyan light, and the phosphor composition is adapted to absorb cyan light from the LED and emit red light.

Abstract: The invention provides light emitting devices having a phosphor layer that are useful as sources of white light, and other applications. The invention provides a light emitting device having a LED and a phosphor composition positioned to receive light from the LED. The LED is adapted to emit cyan light, and the phosphor composition is adapted to absorb cyan light from the LED and emit red light.

Abstract: The invention provides light emitting devices having a phosphor layer that are useful as sources of white light, and other applications. The invention provides a light emitting device having a laser diode and a phosphor composition positioned to receive light from the laser diode. The laser diode is adapted to emit light, and the phosphor composition is adapted to absorb light from the laser diode and emit light at longer wavelengths than the light from the laser diode.