Abstract:
An expanded-beam ferrule for an optical interface device has a ferrule body with a fiber support feature that supports an optical fiber. The ferrule body defines a lens having a planar back surface and a convex and aspheric front surface. The lens has a select amount of on-axis spherical aberration that gives rise to an improved coupling efficiency and in particular provided tolerance to misalignments between confronting expanded-beam ferrules used in an expanded-beam optical interface device. The ferrule body can also include multiple lenses and can support multiple optical fibers in operable alignment thereto.
Abstract:
Optical connectors and optical couplings for fiber-to-chip optical connections are disclosed. In one embodiment, an optical connector includes a ferrule body having a surface, an optical interface disposed within the surface. The optical interface is recessed with respect to the surface by an offset distance, and at least one fiber bore through the ferrule body and terminating at the optical interface. The optical connector further includes at least one optical fiber disposed within the at least one fiber bore such that the optical fiber protrudes beyond a surface of the optical interface. In another embodiment, a compliant material is disposed on a ferrule surface of a ferrule body such that one or more optical fibers pass through the compliant material and protrude beyond a surface of the compliant material. A clamp may also be provided to clamp the optical connector to a substrate.
Abstract:
Optical connectors and optical couplings for fiber-to-chip optical connections are disclosed. In one embodiment, an optical connector includes a ferrule body having a surface, an optical interface disposed within the surface. The optical interface is recessed with respect to the surface by an offset distance, and at least one fiber bore through the ferrule body and terminating at the optical interface. The optical connector further includes at least one optical fiber disposed within the at least one fiber bore such that the optical fiber protrudes beyond a surface of the optical interface. In another embodiment, a compliant material is disposed on a ferrule surface of a ferrule body such that one or more optical fibers pass through the compliant material and protrude beyond a surface of the compliant material. A clamp may also be provided to clamp the optical connector to a substrate.
Abstract:
An expanded-beam ferrule for an optical interface device has a ferrule body with a fiber support feature that supports an optical fiber. The ferrule body defines a lens having a planar back surface and a convex and aspheric front surface. The lens has a select amount of on-axis spherical aberration that gives rise to an improved coupling efficiency and in particular provided tolerance to misalignments between confronting expanded-beam ferrules used in an expanded-beam optical interface device. The ferrule body can also include multiple lenses and can support multiple optical fibers in operable alignment thereto.
Abstract:
A method of bonding an optical fiber in a ferrule includes disposing the ferrule at least partially in a conductive assembly such that a conductive element of the conductive assembly contacts a portion of the ferrule. Energy delivered to the bonding agent via thermal transfer from the conductive element brings the bonding agent to a securing temperature. Cooling the bonding agent to secure the optical fiber in the bore of the ferrule. Related systems are also disclosed.
Abstract:
Conductive assemblies are disclosed for bonding an optical fiber in a ferrule by mounting the ferrule of a fiber optic connector in the conductive assembly and using the conductive assembly to convert laser beam energy to heat and apply the heat to a portion of a fiber optic ferrule sufficient to bond the optical fiber in the ferrule. In an exemplary method, an optical fiber is disposed in a bore of a ferrule. A portion of the ferrule is disposed in a conductive assembly, such that a conductive element contacts a portion of the length of the ferrule. A laser beam absorber absorbs light energy from a laser beam, and converts the energy to heat. The conductive element transfers the heat energy from the laser beam absorber to the ferrule, thereby heating the bonding agent and bonding the optical fiber in the bore of the ferrule.
Abstract:
Methods for coupling of waveguides with dissimilar mode field diameters, and related apparatuses, components, and systems are disclosed. In one example, a waveguide coupling assembly includes an input waveguide having a first mode, and a transition waveguide having a first transition waveguide section, a second transition waveguide section, and a tapered section. The first transition waveguide section has a second mode and is disposed proximate to the input waveguide such that a phase matching condition is achieved between the input waveguide and the first transition waveguide section, thereby evanescently coupling the input waveguide to the first transition waveguide section of the transition waveguide. The tapered section is optically connected between the first transition waveguide section and the second transition waveguide section, such that the second mode of the first transition waveguide section is converted to the third mode of the second transition waveguide section by the tapered section.
Abstract:
Methods for coupling of waveguides with dissimilar mode field diameters, and related apparatuses, components, and systems are disclosed. In one example, a waveguide coupling assembly includes an input waveguide having a first mode, and a transition waveguide having a first transition waveguide section, a second transition waveguide section, and a tapered section. The first transition waveguide section has a second mode and is disposed proximate to the input waveguide such that a phase matching condition is achieved between the input waveguide and the first transition waveguide section, thereby evanescently coupling the input waveguide to the first transition waveguide section of the transition waveguide. The tapered section is optically connected between the first transition waveguide section and the second transition waveguide section, such that the second mode of the first transition waveguide section is converted to the third mode of the second transition waveguide section by the tapered section.
Abstract:
Conductive assemblies are disclosed for bonding an optical fiber in a ferrule by mounting the ferrule of a fiber optic connector in the conductive assembly and using the conductive assembly to convert laser beam energy to heat and apply the heat to a portion of a fiber optic ferrule sufficient to bond the optical fiber in the ferrule. In an exemplary method, an optical fiber is disposed in a bore of a ferrule. A portion of the ferrule is disposed in a conductive assembly, such that a conductive element contacts a portion of the length of the ferrule. A laser beam absorber absorbs light energy from a laser beam, and converts the energy to heat. The conductive element transfers the heat energy from the laser beam absorber to the ferrule, thereby heating the bonding agent and bonding the optical fiber in the bore of the ferrule.
Abstract:
Communication devices, systems, and methods for dynamic cell bonding (DCB) for networks and communication systems are disclosed. In one embodiment, a method of operating a wireless communication system is provided. The method includes determining a first plurality of remote units in a cloud bonded to a communication session, measuring a received signal strength from each of the first plurality of remote units, and measuring a received signal strength from each of a second plurality of remote units in the cloud not bonded to the communication session. One or more of the second plurality of remote units is dynamically bonded to the communication session if the measured received signal strength of the one of the second plurality of remote units is greater than the measured received signal strength of the first plurality of remote units.