Abstract: A method and apparatus are provided for monitoring an optical signal from a solid state laser. The method includes the steps of providing a planar substrate defined by opposing planar surfaces and a substrate edge that together define a substrate volume that is transparent to an optical signal from the solid state laser, disposing the solid state laser on one of the opposing planar surfaces the planar substrate such that a first portion of the optical signal travels directly through the planar substrate substantially orthogonal to the opposing planar surfaces and a second portion of the optical signal is reflected between the opposing planar surfaces of the planar substrate and passes out of the substrate through the substrate edge, and disposing an optical detector proximate the edge of the planar substrate to detect the second portion of the optical signal.

Abstract: An electro-optical converter assembly is described. The electro-optic converter includes an optically transparent substrate with a plurality of alignment apertures and an optical device disposed on a first planar surface of the optically transparent substrate in alignment with the plurality of alignment apertures so that an axis of transmission of the optical device passes directly through the optically transparent substrate.

Abstract: A method and apparatus are provided for transmitting an optical communications signal. The method includes the steps of securing an optical device onto an optically transparent substrate with an optically transparent adhesive such that an axis of transmission of the optical device passes directly through the optically transparent adhesive and a portion of the body of the optically transparent substrate, darkening a portion of the optically transparent adhesive with a laser; and transmitting light from the optical device through the darkened portion of the optically transparent adhesive such that at least some of the light from the optical device is absorbed by the darkened portion.

Abstract: A method and apparatus are provided for monitoring an optical signal from a solid state laser. The method includes the steps of providing a planar substrate defined by opposing planar surfaces and a substrate edge that together define a substrate volume that is transparent to an optical signal from the solid state laser, disposing the solid state laser on one of the opposing planar surfaces the planar substrate such that a first portion of the optical signal travels directly through the planar substrate substantially orthogonal to the opposing planar surfaces and a second portion of the optical signal is reflected between the opposing planar surfaces of the planar substrate and passes out of the substrate through the substrate edge, and disposing an optical detector proximate the edge of the planar substrate to detect the second portion of the optical signal.

Abstract: A method and apparatus are provided for aligning a plurality of transmission paths of an array of optical devices with a plurality of optical fibers. The method includes the steps of disposing the optical array on a first side of the transparent substrate with the plurality of optical transmission paths passing directly through the substrate, disposing a signal processor on the first side of the transparent substrate adjacent the array of optical devices, disposing a set of alignment guides on a second side of the transparent substrate parallel to the plurality of transmission paths for aligning the plurality of optical fibers with the plurality of transmission paths and coupling a plurality of signals processed by the processor through the plurality of transmission paths between the optical array and plurality of optical fibers.

Abstract: A method and apparatus are provided for aligning a plurality of transmission paths of an array of optical devices with a plurality of optical fibers. The method includes the steps of disposing the optical array on a first side of the transparent substrate with the plurality of optical transmission paths passing directly through the substrate, disposing a signal processor on the first side of the transparent substrate adjacent the array of optical devices, disposing a set of alignment guides on a second side of the transparent substrate parallel to the plurality of transmission paths for aligning the plurality of optical fibers with the plurality of transmission paths and coupling a plurality of signals processed by the processor through the plurality of transmission paths between the optical array and plurality of optical fibers.

Abstract: A method and apparatus are provided for transmitting an optical communications signal. The method includes the steps of securing an optical device onto an optically transparent substrate with an optically transparent adhesive such that an axis of transmission of the optical device passes directly through the optically transparent adhesive and a portion of the body of the optically transparent substrate, darkening a portion of the optically transparent adhesive with a laser; and transmitting light from the optical device through the darkened portion of the optically transparent adhesive such that at least some of the light from the optical device is absorbed by the darkened portion.

Abstract: An electro-optical converter assembly is described. The electro-optic converter includes an optically transparent substrate with a plurality of alignment apertures and an optical device disposed on a first planar surface of the optically transparent substrate in alignment with the plurality of alignment apertures so that an axis of transmission of the optical device passes directly through the optically transparent substrate.

Abstract: The invention is directed to laterally confined optical waveguide devices in semiconductors using quantum-well structures. An optical waveguide having a core comprising at least one quantum-well structure is interposed between first and second cladding regions such that an optical beam inserted into the core region spreads laterally with respect to a primary direction of the beam. Contacts are fabricated on the surface of the top cladding region and serve as means for applying an electric field to the core of the waveguide. The electric field induces a change in the refractive index of the portion of the quantum-well structure within the field. The change in the refractive index functions to laterally confine the propagation of the optical beam to the region of the core within the electric field, while maintaining a low loss transmission.