An LC duplex connector having an intermediate panel and a pulling rod; a first through hole and a second through hole are provided on an upper cover panel and a lower cover panel respectively; an elastic arm is provided on the intermediate panel; the elastic arm is inserted into the first and second through holes to fix the intermediate panel with respect to the upper and lower cover panels; the pull rod is installed on the intermediate panel and is axially slidable; the press strip is provided with a reverse hook; the pull rod is provided with pulling hooks each being cooperative with a corresponding reverse hook. When pulling the pull rod, the pulling hooks of the pull rod apply a downward force against the reverse hooks, thus driving the press strips to move downwardly to disengage the LC duplex connector from the concealed fasteners of the LC adaptors.

A fiber optic connector comprises a shell, an insert, and at least one terminus sub-assembly. The shell defines an interior space and has a front portion. The insert is retained in the front portion of the shell. The at least one terminus sub-assembly at least partially received and retained in the insert. The at least one terminus sub-assembly includes a ferrule, a stub optical fiber secured to the ferrule, and a holder in which the stub optical fiber terminates. At least one splice component is retained with the holder and configured to be actuated and apply a clamping force to the stub optical fiber within the holder.

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.

Pre-embedded optical fiber connector having an inner core, an insertion core assembly in the inner core, an outer casing, and an intermediate component and a threaded tail sleeve mounted on the inner core; a pre-embedded optical fiber is provided inside the insertion core assembly; an optical cable is inserted into an insertion channel formed by the inner core and the intermediate component; a connecting optical fiber inside the optical cable is inserted into the insertion core assembly; a press block and a push member are provided on the insertion core assembly; the push member is exposed from a first opening on the outer casing; the push member is slidable; the press block presses against and fixes the pre-embedded optical fiber and the connecting optical fiber, and a pressure of the cress block on the pre-embedded optical fiber and the connecting optical fiber varies depending on different positions of the push member.

An LC duplex connector having an intermediate panel and a pulling rod; a first through hole and a second through hole are provided on an upper cover panel and a lower cover panel respectively: an elastic arm is provided on the intermediate panel; the elastic arm is inserted into the first and second through holes to fix the intermediate panel with respect to the upper and lower cover panels; the pull rod is installed on the intermediate panel and is axially slidable; the press strip is provided with a reverse hook; the pull rod is provided with pulling hooks each being cooperative with a corresponding reverse hook. When pulling the pull rod, the pulling hooks of the pull rod apply a downward force against the reverse hooks, thus driving the Dress strips to move downwardly to disengage the LC duplex connector from the concealed fasteners of the LC adaptors.

A flexible hinge alignment mechanism of a high-power optical system is made of a flexible hinge, and may lead to a relatively weak region of the hinge to achieve elastic displacement or rotation under stress loading. Through movable actuators such as screws and springs, the area is precisely moved, and the function of accurate alignment is achieved. When the flexible hinge causes the structure to move relatively due to the applied forces, it must be ensured that the corresponding distribution of maximum stress needs to be below the yielding point of the material, thus ensuring the mechanism acts in a material's elastic region. The design is beneficial to optimize the design of the optical alignment mechanism.

The present disclosure provides a connection assembly, a cable plug and a cable assembly. The connection assembly comprises: a core base, configured to fix an end of a cable and comprising a first clamping portion; and a first fixing member, arranged with at least one second clamping portion and defining a first recess in an axial direction; wherein the first recess is configured to laterally accommodate a first portion of the cable different from the end of the cable, and the at least one second clamping portion is configured to fix the core base by directly or indirectly cooperating with the first clamping portion.

A fiber optic cable assembly or termination system is preconnectorized and may include different combinations of collars, crimp bands, and clamp assemblies to improve functionality of the arrangement.

Examples of dual core connectors and connection systems are disclosed. In an implementation, a dual core connector comprises a plug assembly and an engagement assembly, the plug assembly comprises a housing and ferrules. The housing has a through hole that penetrates through a first surface and an opposing second surface of the housing. The ferrules are both located within the housing and extend in the length direction of the housing, and axes of the ferrules are separately located at two sides of the through hole. The engagement assembly comprises an engagement member and a shaft body, one end of the shaft body is connected to the engagement member, and the other end of the shaft body is rotatably connected within the through hole, and when the shaft body is rotated relative to the housing into a locked position, the shaft body and the housing can lock together.

A connector-attached optical fiber cord includes: an optical fiber cord including a coated optical fiber and a sheath surrounding a circumference of the coated optical fiber; a ferrule attached to a front end of the coated optical fiber; a housing that houses the ferrule and the optical fiber cord such that the ferrule is exposed to an exterior of the housing at a front end of the housing while the optical fiber cord extends out of a rear end of the housing; a protective tube attached to a portion of the optical fiber cord in which the coated optical fiber is exposed; and a boot attached to the rear end of the housing and that allows the portion of the optical fiber cord to be inserted through the boot.