Abstract: This application describes a light emitting device or an assembly of light emitting devices. In the completed light emitting device, a distributed Bragg reflector minimizes the possibility of disturbing adjacent light emitting devices. Methods to fabricate such devices and assemblies of devices are also described.

Abstract: This application describes a light emitting device or an assembly of light emitting devices, each with a small footprint. The light emitting device comprises two transistors, a capacitor, and an LED. The transistors comprise single crystal semiconductor. The capacitor is vertically-oriented. The LED overlies the transistors and capacitor. Methods to form the light emitting device or assembly are discussed.

Abstract: Devices and methods of their fabrication for pixels or displays are disclosed. Pixels and displays having redundant subpixels are described. Subpixels are initially isolated by an unprogrammed antifuse. A subpixel is connected to the display by programming the antifuse, electrically connecting it to the pixel or display. Defective subpixels can be determined by photoluminescent testing or electroluminescent testing, or both. A redundant subpixel can replace a defective subpixel before pixel or display fabrication is complete.

Abstract: Devices and methods of their fabrication for pixels or displays are disclosed. Pixels and displays having redundant subpixels are described. Subpixels are initially isolated by an unprogrammed antifuse. A subpixel is connected to the display by programming the antifuse, electrically connecting it to the pixel or display. Defective subpixels can be determined by photoluminescent testing or electroluminescent testing, or both. A redundant subpixel can replace a defective subpixel before pixel or display fabrication is complete.

Abstract: This application describes a light emitting device or an assembly of light emitting devices, each with a small footprint. The light emitting device comprises two transistors, a capacitor, and an LED. The transistors comprise single crystal semiconductor. The capacitor is vertically-oriented. The LED overlies the transistors and capacitor. Methods to form the light emitting device or assembly are discussed.

Abstract: This application describes a light emitting device or an assembly of light emitting devices. In the completed light emitting device, a distributed Bragg reflector minimizes the possibility of disturbing adjacent light emitting devices. Methods to fabricate such devices and assemblies of devices are also described.

Abstract: This application describes a light emitting device or an assembly of light emitting devices, each with a small footprint. The light emitting device comprises two transistors, a capacitor, and an LED. The transistors comprise single crystal semiconductor. The capacitor is vertically-oriented. The LED overlies the transistors and capacitor. Methods to form the light emitting device or assembly are discussed.

Abstract: This application describes a light emitting device or an assembly of light emitting devices, each with a small footprint. The light emitting device comprises two transistors, a capacitor, and an LED. The transistors comprise single crystal semiconductor. The capacitor is vertically-oriented. The LED overlies the transistors and capacitor. Methods to form the light emitting device or assembly are discussed.

Abstract: This application describes a light emitting device or an assembly of light emitting devices. In the completed light emitting device, a distributed Bragg reflector minimizes the possibility of disturbing adjacent light emitting devices. Methods to fabricate such devices and assemblies of devices are also described.

Abstract: This application describes a subpixel apparatus comprising two transistors, a capacitor, and a small LED. The transistors and capacitor are fabricated in such a manner as to occupy a reduced area and have the small LED overlie them. Methods to form the subpixel apparatus are discussed.

Abstract: Devices and methods of their fabrication for pixels or displays are disclosed. Pixels and displays having redundant subpixels are described. Subpixels are initially isolated by an unprogrammed antifuse. A subpixel is connected to the display by programming the antifuse, electrically connecting it to the pixel or display. Defective subpixels can be determined by photoluminescent testing or electroluminescent testing, or both. A redundant subpixel can replace a defective subpixel before pixel or display fabrication is complete.

Abstract: This application describes a subpixel apparatus comprising two transistors, a capacitor, and a small LED. The transistors and capacitor are fabricated in such a manner as to occupy a reduced area and have the small LED overlie them. Methods to form the subpixel apparatus are discussed.

Abstract: This application describes a light emitting device or an assembly of light emitting devices. In the completed device, an LED at least partially overlies a thin film transistor and a reflective layer is disposed between the LED and the thin film transistor. Methods to fabricate such devices and assemblies of devices are also described.

Abstract: This application describes a light emitting device, an assembly of light emitting devices, a display comprising assemblies of light emitting devices, and methods of fabricating same. The light emitting device comprises a transistor, an LED that at least partially overlies the transistor, a reflector layer disposed between the LED and transistor, and conductive wires that connect electrically the transistor to the LED. The assembly comprises a plurality of light emitting devices, and the display comprises a plurality of assemblies.

Abstract: This application describes a light emitting device, an assembly of light emitting devices, a display comprising assemblies of light emitting devices, and methods of fabricating same. The light emitting device comprises a transistor, an LED that at least partially overlies the transistor, a reflector layer disposed between the LED and transistor, and conductive wires that connect electrically the transistor to the LED. The assembly comprises a plurality of light emitting devices, and the display comprises a plurality of assemblies.

Abstract: This application describes a light emitting device, an assembly of light emitting devices, a display comprising assemblies of light emitting devices, and methods of fabricating same. The light emitting device comprises a transistor, an LED that at least partially overlies the transistor, a reflector layer disposed between the LED and transistor, and conductive wires that connect electrically the transistor to the LED. The assembly comprises a plurality of light emitting devices, and the display comprises a plurality of assemblies.

Abstract: This application describes a light emitting device or an assembly of light emitting devices. In the completed device, an LED at least partially overlies a thin film transistor and a reflective layer is disposed between the LED and the thin film transistor. Methods to fabricate such devices and assemblies of devices are also described.

Abstract: This application describes an assembly suitable for emitting light, and methods of forming the same. The assembly includes a single crystal substrate with first and second surfaces, a plurality of LEDs in immediate contact with the first surface of the substrate. The LEDs are substantially crystal lattice matched with the substrate. The plurality of LEDs includes three or more LEDs that are not in electrical contact with any other LED, and there is a gap between each LED of the plurality and its nearest neighbor LED. The assembly includes phosphor-containing encapsulant layers overlying at least a portion of the LEDs.

Abstract: This application describes an assembly suitable for emitting light, and methods of forming the same. The assembly includes a single crystal substrate with first and second surfaces, a plurality of LEDs in immediate contact with the first surface of the substrate. The LEDs are substantially crystal lattice matched with the substrate. The plurality of LEDs includes three or more LEDs that are not in electrical contact with any other LED, and there is a gap between each LED of the plurality and its nearest neighbor LED. The assembly includes phosphor-containing encapsulant layers overlying at least a portion of the LEDs.