Abstract: An optical interconnect has a plurality of optical sources, a first lens configured to collimate optical beams from the plurality of optical sources, a second lens configured to refocus the optical beams, and a plurality of optical receivers configured to receive the refocused optical beams from the second lens.

Abstract: An optical interconnect includes a reflective body having a plurality of faces, where the body is translatable in a plane; and an optical receiver configured to receive optical energy reflected by at least one of the faces.

Abstract: This disclosure relates to amorphous ferroelectric memory devices and methods for forming them.

Abstract: This disclosure relates to amorphous ferroelectric memory devices and methods for forming them.

Abstract: An optical interconnect has a plurality of optical sources, a first lens configured to collimate optical beams from the plurality of optical sources, a second lens configured to refocus the optical beams, and a plurality of optical receivers configured to receive the refocused optical beams from the second lens.

Abstract: A polarizing photonic band gap system has a photonic crystal emitter. The photonic crystal emitter has a crystal end surface. The photonic crystal emitter is configured to generate electromagnetic energy having a wavelength ?. The system has a polarizer. The polarizer is connected to the photonic crystal emitter. The polarizer has a polarizer surface. The polarizer surface is located within a distance of said crystal end surface. The distance is sufficient to quantum mechanically couple the polarizer surface with said crystal end surface at the wavelength ?.

Abstract: This disclosure relates to continuous carbon-nanotube filaments of radiation-emitting devices and methods for fabricating them.

Abstract: Embodiments of methods, apparatuses, devices, or systems for forming a photonic device are described.

Abstract: A light source module for use in display systems is provided herein. According to one exemplary embodiment, the light source module includes a plurality of coherent light sources, and a diffraction grating in optical communication with the coherent light source, the diffraction grating being configured to provide feedback to the coherent light source to produce a plurality of spectra over a broad spectrum.

Abstract: A storage device comprises a substrate having a recording layer, the recording layer having plural regions associated with respective plural storage cells. A light source generates write light having a first wavelength to write to the storage cells, wherein the storage cells have a size less than the first wavelength.

Abstract: In one embodiment, a method includes forming an array of recesses in a substrate, depositing spacer material in the recesses, forming photonic elements on the spacer material, and separating the structure previously formed into individual dies that each include a photonic element, spacer material and substrate.

Abstract: Embodiments of methods, apparatuses, devices, or systems for forming a photonic device are described.

Abstract: An electrical memory component is provided, comprising read/write probes and a chalcogenide storage media. Each read/write probe is adapted for selective electrical connection to a memory portion of the chalcogenide storage media and for performing read and write operations upon the memory portion. The chalcogenide storage media has a second plurality of memory portions, and is movably mounted relative to the first plurality of read/write probes for selective electrical connection of the read/write probes to a subset of the memory portions.

Abstract: This disclosure relates to continuous carbon-nanotube filaments of radiation-emitting devices and methods for fabricating them.

Abstract: A polarizing photonic band gap system has a photonic crystal emitter. The photonic crystal emitter has a crystal end surface. The photonic crystal emitter is configured to generate electromagnetic energy having a wavelength ?. The system has a polarizer. The polarizer is connected to the photonic crystal emitter. The polarizer has a polarizer surface. The polarizer surface is located within a distance of said crystal end surface. The distance is sufficient to quantum mechanically couple the polarizer surface with said crystal end surface at the wavelength ?.