A ferrule-less optical interconnect includes electrical communications assembly having a receptacle disposed in a housing, the receptacle adapted to mate with an electrical connector to produce a free space gap, and active optical communications components disposed in the housing and adapted to process a free space optical beam traveling along a first optical beam path through the free space gap. The free space optical beam has a substantially parallel shape and Gaussian power density distribution. Active optical components may include a light source and a collimator adapted to produce the free space optical beam. Active optical components may include a condenser adapted to receive the free space optical beam and produce a focused optical beam signal for reception by a sensor. A hole is disposed in the housing along the first optical beam path providing free space passageway between the active optical communications components and the free space gap.

The present disclosure relates to system and method for cleaning an end face of a bare optical fiber (100). The system and methods include inserting the end face of the bare optical fiber (100) through a layer of material (500) that includes electrospun fibers.

A module housing case is described. The modular housing case includes a fiber optic component housing defined as a cavity that is sized to receive a fiber optic connector. Within the cavity is a ferrule guide. The module housing case also has an internal cavity that is at least partially enclosed. Components to assist in magnification may be disposed at least partially within the internal cavity. Finally, the module housing case employs a camera lens alignment feature.

The output profile of light from a multimode optical fiber is determined using a geometrical optics approach where the rays launched into the fiber conform to LP-modes of the fiber. This output profile can then be employed as an input to a second fiber to calculate the transmission losses of a coupler that introduces various coupling inaccuracies, such as lateral offset, axial offset, and angular offset.

The purpose of this invention is to create a low cost, easy to use, fiber end face and or connector inspection tool component that easily adapts and converts most all mobile communication devices with camera, screen and software capabilities into a microscope. The invention encapsulates and holds firm a fiber connector body and or fiber connector bodies and or ferrule housing or ferrule housings for the purpose of viewing the cleanliness and quality of the fiber end face and or faces. A Fiber end face is the component area and or areas the embodies the fiber core and or fiber cores, fiber ferrule end and or ferrule ends and fiber related end component and or components that are instrumental in the mating with other like components with fiber connector plug end faces and or related optical fiber components for the purpose connectors and splices prior to connecting and or join optical fibers where a connect/disconnect capability is required.

The present disclosure relates to fiber optic connection systems including fiber optic connector having retractable noses for protecting bare fiber ends of ferrule-less connectors. In certain examples, the retractable noses are used in combination with protective shutters. In other examples, the retractable noses can accommodate multiple optical fibers.

Fiber optic connectors are provided that include a substrate having a groove therein, an optical fiber that is at least partly in the groove, an optical mode field converter or other focusing reflector that is positioned to receive an optical signal that is output from the optical fiber and a housing that surrounds the substrate and the optical fiber.

The present disclosure relates to connector ports with shutters configured to inhibit dust intrusion by including peripheral regions that oppose undercut portions of the connector port when the shutter is closed. The present disclosure also relates to fiber optic connectors having latching configurations with double latches for retaining the fiber optic connectors in connector ports. The present disclosure also relates to a fiber optic connector including a plurality of stacked fiber carrier modules. The present disclosure also relates to a fiber optic connector including a connector body and a rear connector piece that is secured to the connector body by a snap-fit connection. The rear connector piece can be configured for attachment to a fiber optic cable. The rear connector piece can be secured to the connector body by a snap-fit connection. The rear connector piece can have a snap-fit interface compatible with a number of different styles or types of connector bodies to promote manufacturing efficiency.

The present invention provides an optical connector which comprises a connector body, and a first adjusting element, wherein the connector body comprises a first end surface at a first side of the connector body utilized to insert into a receptacle, and a second end surface formed at another side of the connector body and opposite to the first end surface. The first adjusting element is operated to perform a position adjusting movement for taking the connector body away from the receptacle. Alternatively, in another embodiment, the present invention further provides an optical connector module comprising the receptacle and the optical connector for applying to various kinds of communication device.

An optical fiber connection system includes a first and a second optical fiber, each with end portions that are terminated by a first and a second fiber optic connector, respectively. A fiber optic adapter connects the first and the second fiber optic connectors. A fiber alignment apparatus includes V-blocks and gel blocks. Each of the fiber optic connectors includes a connector housing and a sheath. The end portions of the optical fibers are positioned beyond distal ends of the respective connector housings. The sheath is slidably connected to the connector housing and slides between an extended configuration and a retracted configuration. The sheath covers the end portion of the respective optical fiber when the sheath is at the extended configuration and exposes the end portion when at the retracted configuration. The end portions of the optical fibers are cleaned when slid between the V-blocks and the gel blocks.