Abstract: A module mount interposer may include one or more fastener receivers configured to mechanically couple with one or more fasteners so as to mechanically and electrically couple a module to the interposer. The module mount interposer may also include a core configured to electrically couple with the module, wherein each of the fastener receivers are mechanically coupled to the core. The module mount interposer may additionally include a solder layer electrically coupled to the core and configured to electrically couple with a printed circuit board (PCB) so as to provide an electrical signal from the module to the PCB and to provide an electrical signal from the PCB to the module.

Abstract: A module mount interposer may include one or more fastener receivers configured to mechanically couple with one or more fasteners so as to mechanically and electrically couple a module to the interposer. The module mount interposer may also include a core configured to electrically couple with the module, wherein each of the fastener receivers are mechanically coupled to the core. The module mount interposer may additionally include a solder layer electrically coupled to the core and configured to electrically couple with a printed circuit board (PCB) so as to provide an electrical signal from the module to the PCB and to provide an electrical signal from the PCB to the module.

Abstract: A module mount interposer may include one or more fastener receivers configured to mechanically couple with one or more fasteners so as to mechanically and electrically couple a module to the interposer. The module mount interposer may also include a core configured to electrically couple with the module, wherein each of the fastener receivers are mechanically coupled to the core. The module mount interposer may additionally include a solder layer electrically coupled to the core and configured to electrically couple with a printed circuit board (PCB) so as to provide an electrical signal from the module to the PCB and to provide an electrical signal from the PCB to the module.

Abstract: A module mount interposer may include one or more fastener receivers configured to mechanically couple with one or more fasteners so as to mechanically and electrically couple a module to the interposer. The module mount interposer may also include a core configured to electrically couple with the module, wherein each of the fastener receivers are mechanically coupled to the core. The module mount interposer may additionally include a solder layer electrically coupled to the core and configured to electrically couple with a printed circuit board (PCB) so as to provide an electrical signal from the module to the PCB and to provide an electrical signal from the PCB to the module.

Abstract: An optical connector system comprising a connector for interconnection to a mating component, the first connector defining a non-mated state when not connected to the mating component, and a mated state when connected to the mating component, the connector having a front and rear orientation and comprises at least a first inner housing containing at least one fiber biased forward therein and having at least one first latching member; and a first outer housing containing at least a portion of the first inner housing, the first inner housing being slidably mounted in the first outer housing, wherein the mating component comprises at least at least one second latching member for interengaging with the first latching member and, when the first connector and the mating component are in the mated state, the forwardly-biased fiber is urged into the mating component while the inner housing is held secure by the first and second latching members.

Abstract: A process for cutting or splitting at least one optical fiber at a predetermined angle, wherein the fiber is introduced into a holding and positioning device and is cut by a pulsed laser beam.

Abstract: An optical connector system comprising a connector for interconnection to a mating component, the first connector defining a non-mated state when not connected to the mating component, and a mated state when connected to the mating component, the connector having a front and rear orientation and comprises at least a first inner housing containing at least one fiber biased forward therein and having at least one first latching member; and a first outer housing containing at least a portion of the first inner housing, the first inner housing being slidably mounted in the first outer housing, wherein the mating component comprises at least at least one second latching member for interengaging with the first latching member and, when the first connector and the mating component are in the mated state, the forwardly-biased fiber is urged into the mating component while the inner housing is held secure by the first and second latching members.

Abstract: A process for cutting or splitting at least one optical fiber at a predetermined angle, wherein the fiber is introduced into a holding and positioning device and is cut by a pulsed laser beam.

Abstract: An optical connector system comprising first and second complementary connectors, which, when separated, define a non-plugged state and, when joined, define a plugged state, each connector has a front and rear oreintation and comprises: (a) an inner housing containing at least one fiber, the inner housing having a latch and a hook, the inner housings of the two complementary connectors being hermaphroditic such that, when the two complementary connectors are in the mated state, the latch of one inner housing engages the hook of the other inner housing, thereby optically coupling the fibers contained therein; and (b) an outer housing containing at least a portion of the inner housing, the inner housing being slidable therein.

Abstract: A process for cutting or splitting at least one optical fiber at a predetermined angle, wherein the fiber is introduced into a holding and positioning device and is cut by a pulsed laser beam.

Abstract: An optical connector with two complementary connector halves, each half having a sleeve in which a optical fiber is mounted, the sleeve is surrounded by an inner housing which is surrounded by an outer housing, and in at least one half, the sleeve is under a spring force and capable of axial movement in the inner housing and the inner housing is freely movable in the outer housing between two stops and has latching means for latching on the inner housing of a complementary connector half, the outer housing is designed in such a way that it can be moved over the inner housing both in the plugged and in the non-plugged state and it bears releasing means for opening the latching means of the associated inner housing.