Abstract: The invention relates to a cable gland (1) having a flange (3) and a plug-in part (2) suited for an operational connection to the flange (3). The plug-in part (2) comprises a locking sleeve (4), and a fastener (7) for a connector (8), said fastener being operatively connected to said locking sleeve by way of a control slide (10). The control slide (10) is configured such that a rotation of the locking sleeve (4) around the longitudinal axis (x) of the plug-in part (2) results in an axial displacement of the fastener (7) in a longitudinal direction.

Abstract: One embodiment includes a latching mechanism having a latch, a cam and a slider. The cam is configured to rotate about an axis of rotation. The cam is also configured to displace an end of the latch when the cam is rotated about the axis of rotation. The slider is operably connected to the cam and is configured to cause the cam to rotate about the axis of rotation.

Abstract: An optical connector includes an insulative housing, an optical module movably retained on the insulative housing, and a spring being assembled between the insulative housing and the optical module along a front to back direction. The optical module has a hemispheric projection at a rear side thereof. The spring has a first end positioned on the insulative housing and a second end ringing on the projection and resisting against a hemispheric surface of the projection. The second end moves on the hemispheric surface of the projection when the spring is compressed to move upwardly or laterally.

Abstract: The invention relates to a plug-in connector for connecting at least one conductor, in particular a conductor cable with an optical conductor, comprising a main body (2) having a continuous opening, a tube-like conductor holder (3) and an anti-kink element (4). The conductor holder (3) is arranged at least partially inside the main body and movably mounted therein. The anti-kink element (4) protrudes at least partially over the main body (2). A spring element (5) is provided for positioning the conductor relative to the main body (2) and is clamped between the conductor holder (3) and the anti-kink element (4).

Abstract: The present invention provides a connector unit that can surely position and connect a plurality of optical fiber plugs in a short time and easily release a connected state of optical fiber connectors even if the number of optical fiber connectors increases. A connector unit includes a positioning member for positioning a plurality of optical fiber plugs, an adapter that has plug guide holes for inserting tip ends of the optical fiber plugs to connect with the optical fiber plugs, and guide portions for guiding the positioning member with respect to the adapter and inserting the tip ends of the optical fiber plugs into the plug guide holes of the adapter to connect with the optical fiber plugs.

Abstract: Embodiments disclosed herein include furcation plugs having segregated channels to guide epoxy into passageways for optical fiber furcation, and related assemblies and methods. The furcation plugs secure furcated fiber optic cables to fiber optic equipment to prevent the furcated fiber optic cables from being damaged. The furcation plugs, as part of fiber optic furcation assemblies, are typically installed on fiber optic equipment that provides fiber optic components to which the optical fibers are connected. The fiber optic cables may be inserted into fiber passageways of the furcation plugs and secured to the furcation plugs with epoxy. The epoxy may be guided into the fiber passageways through segregated epoxy channels of the furcation plug. In this manner, epoxy may be more uniformly distributed within the fiber passageway to improve the epoxy bonds by reducing the occurrence of air pockets known as voids, which can weaken the epoxy bonds and cause attenuation.

Abstract: A cable sealing device including an attaching part securable to the cable; a fixation part adapted to be mountable on the attaching part; and a sealing part. The attaching part includes outer locking faces. The fixation part has inner abutment faces adapted to co-operate with the outer locking faces to axially and rotationally lock the fixation part relative to the attaching part. The sealing part includes an inner seal and an outer seal. The sealing part also includes a second securing arrangement that is configured to engage a first securing arrangement of the fixation part to axially and rotationally lock the sealing part to the fixation part.

Abstract: A clamping device for connecting a cable to a strain relief member includes a housing having a retention member extending therefrom. The retention member is configured to be inserted in a mating opening in the strain relief member and to be secured thereto. A connector is configured to connect the cable to the housing.

Abstract: The disclosure relates to a protection cap assembly for protecting an optical fiber connector assembly. The optical fiber connector assembly includes a first shell and a second shell. The first shell includes a number of first lenses and the second shell includes a number of second lenses. The protection cap assembly includes a first protection cap and a second protection cap. The first protection cap is configured to sleeve over the first shell to enclose the first lenses. The second protection cap is configured to sleeve over the second shell to enclose the second lenses.

Abstract: An optical connector includes a fiber holder to hold optical fibers; a housing to accommodate the optical fibers and the fiber holder; and a thermally driven actuator to displace at least a part of the fiber holder upon application of heat from a first position at which the fiber holder is retracted inside the housing to a second position that allows the optical fibers to be optically coupled to a counterpart connector.

Abstract: The fiber optic hinge can mechanically connect a first fiber optic tray and a second fiber optic tray of a fiber optic device, while providing an optical fiber path extending continuously through the first and second hinge members.

Abstract: A fiber optic connector includes a shroud, spring, ferrule mount, shrink tube, and ferrule. The connector terminates a fiber optic cable including an optical fiber and a strength member. The ferrule terminates the optical fiber and is mounted to the ferrule mount. The ferrule mount attaches to the strength member and includes an exterior retaining surface and a passage for the optical fiber. The shroud is mounted over the ferrule mount and includes an interior retaining surface. The exterior and the interior retaining surfaces engage to limit distal movement of the shroud relative to the ferrule mount and the attached cable. The spring engages the cable and the shroud and distally urges the shroud relative to the cable. The shrink tube forms a seal between the shroud and the cable and can proximally urge the shroud relative to the ferrule mount. This proximal urging is overcome by the spring.

Abstract: Fiberoptic connector and adapter assembly includes a fiberoptic connector received within an adapter. The connector has a cover on the connector housing. The cover pivots between open and closed positions to expose or cover, respectively, a optical fiber contained within the connector. Longitudinal guides of the connector are received cooperating with longitudinal guides of the adapter to direct the connector into the adapter in a prescribed alignment. A cam pin is carried on the adapter to engage a cam pin receiving slot on the cover to urge the cover to the open position as the connector is inserted into the adapter.

Abstract: A method for manufacturing an optical fiber spool includes winding a coil of an optical fibers up in the form of a cross-winding such that several layers of the optical fiber are formed that lie on top of one another. The optical fiber has a surface that respectively features contact areas between adjacent layers. Elevations are produced on the surface to create intermediate spaces between the elevations. The elevations are distributed so that in the region of one of the respective contact areas, at least one of the elevations of one of the adjacent layers of the respective contact area engages into at least one of the intermediate spaces of the other adjacent layer to of the same contact area. An optical fiber spool with a self-supporting coil of an optical fiber can be produced.

Abstract: A method of terminating a fiber optic cable includes removing a portion of an outer jacket from an end of a fiber optic cable to expose an end portion of an optical fiber so that an end of the optical fiber extends a first axial length from the outer jacket. A portion of the fiber optic cable is coiled about a spool so that the end of the optical fiber extends a second axial length from the outer jacket. The second axial length is greater than the first axial length. A second optical fiber is spliced to the optical fiber of the fiber optic cable. The portion of the fiber optic cable is uncoiled so that the optical fiber retracts into the outer jacket of the fiber optic cable.

Abstract: A fiber optic connector system is described which includes a plug and a socket. The optically active surfaces of the plug and socket are automatically protected from soiling as soon as the connection is opened.

Abstract: The present disclosure relates to an optical device that includes an optical splitting component that optically couples an optical input fiber to a plurality of optical output fibers. The optical output fibers have non-connectorized free ends that have been processed to reduce the ability of the non-connectorized free ends to reflect light back towards the optical splitting component.

Abstract: An optical fiber connector for terminating an optical fiber is provided. The optical fiber connector includes a housing configured to mate with a receptacle. The connector also includes a collar body disposed in the housing and retained between the housing's outer shell and a backbone. The collar body includes a swivel head coupled to a front end portion of the collar body, where the swivel head is configured to receive a ferrule. The swivel head is configured to pivot with respect to the front end portion of the collar body by a controlled amount upon a side pull force being placed on the connector and/or optical fiber.

Abstract: An apparatus is provided and includes a housing, a block formed to define an array of holes corresponding to an array of plugs into which connectors with spring loaded sleeves are pluggable such that the block engages with a respective sleeve of each connector, the block being supportively disposed within the housing to be movable with respect to the housing between first and second block positions at which the sleeves are extended and retracted, respectively and a cam lever supported on the housing and coupled to the block, which selectively occupies first and second lever positions at which the cam lever causes the block to assume the first and second block positions, respectively.

Abstract: An optical fiber adapter includes a housing, a hook member and an elastic body. The housing has an axial cavity defined by a first wall, a second wall, a third wall and a fourth wall. The hook member is positioned in the axial cavity which comprises a flange, a hollow cylinder and a pair of hooks. The hollow cylinder and hooks extends from one end of the flange and the hollow cylinder is positioned between the hooks. The elastic body is positioned on and around the hollow cylinder. When the optical fiber connector is inserted into the axial cavity of the optical fiber adapter, the ferrule will be inserted into the hollow cylinder and the elastic body will be in contact with inner walls of the inner housing of the optical fiber connector.

Abstract: A flexible dust cover is provided for use with a parallel optical communications module for preventing airborne matter, such as dirt, dust, and gases from entering the module. The flexible dust cover fits snugly to the module to protect components of the module and the optical pathways of the module from airborne matter. The flexible dust cover has an elasticity that allows it to be temporarily deformed from its original shape to a stretched state by application of a stretching force to enable the module to be inserted into a central opening formed in the cover. The force is then removed, causing the cover to attempt to return to its original, non-stretched shape. When this happens, interior surfaces of the cover form a snug fit about exterior surfaces of the module. This snug fit fills in air gaps in the module that would otherwise be exposed to the environment.

Abstract: A method and structure for terminating an optical fiber are disclosed that provide an optical fiber termination structure with a small volume and very low return loss, even when the termination is in close proximity to reflective surfaces. In one example embodiment, the optical fiber termination reduces reflections into the one or more cores to a return loss of ?70 dB or less regardless of the presence of surfaces proximate the optical fiber termination. At the same time, a length of the optical fiber termination is less than 5 mm and a largest transverse dimension of the optical fiber termination is less than 325 um. The optical fiber termination is useful in fiber sensing applications in general and is particularly effective for terminating a multi-core fiber used in a distributed shape sensing application.

Abstract: A dust cover includes a frame shaped to circumscribe an end of a first connector configured to receive a second connector. The connectors can transmit a signal when coupled. A plurality of segments is rotatably coupled to the frame. The frame includes an opening sized to accommodate the second connector. The segments are operable between an open position and closed position. Each segment includes a flexible material and each segment is positioned around the opening and is coupled to the frame at a pivot point. The segments are shaped to cover the opening in the closed position and to expose at least a portion of the opening in the open position. An actuator is rotatably coupled to each segment. Movement of the actuator in a first direction moves the segments to the open position and movement of the actuator in a second direction moves the segments to a closed position.

Abstract: Certain types of fiber optic cable assemblies include a fiber optic cable; and a cable pulling assembly coupled to one end of the fiber optic cable. The fiber optic cable includes optical fibers and a first fanout arrangement at which the optical fibers are transitioned from a multi-fiber cable section to connectorized pigtails. Some example cable pulling assemblies include an enclosure defining a cavity in which the second end of the fiber optic cable is disposed. A first end of the enclosure surrounds the first fanout arrangement. A second end of the enclosure is folded into a loop. A first cable tie arrangement secures the second end of the enclosure in the loop. At least a second cable tie extends through opposite side holes in the first fanout arrangement and through both top and bottom portions of the enclosure.

Abstract: An automated fiber optic connector processing system for processing a plurality of fiber optic cables and connectors, with each of said cables including an optical fiber, includes a pallet fixture for holding a plurality of fiber optic cables and connectors during movement along a manufacturing line so that the connectors may be secured to the cable ends, and the ends of the cables finished. The pallet fixture includes a pallet base plate, with a stationary fixture mounted along one edge of the pallet base plate. The stationary fixture defines a plurality of channels for receiving fiber optic cable connectors of the plurality of fiber optic cables, and at least one latching plate for retaining the connectors in the plurality of channels. An oven having an elongated oven opening is provided at a first processing station.

Abstract: An organizing device is for organizing multiple optical fiber lines to run parallel to each other on a plane. The organizing device includes a guiding unit and a positioning unit. The positioning unit includes a main body slidably disposed on the guiding unit, a first positioning part extending from the main body, and a second positioning part that extends from the main body in a same direction as the first positioning part and that is spaced apart from the first positioning part. The main body, the first positioning part and the second positioning part cooperate to define a positioning slot. The distance between the first and second positioning parts corresponds to a diameter of the optical fiber lines.

Abstract: A fiber optic cable fixture 1 has a joint member 3, a swaging member 4, and a fastening member 5. The joint member 3 has a cylindrical shape in which a through hole 10 is formed and includes a joint section 11 joined to another member, a male screw 12, and a cylindrical section 13 that is smaller in diameter than the male screw 12 and that is covered with a jacket 7 and tension fibers. The swaging member 4 is fitted to the cylindrical section 13 while covered with the jacket 7. A female screw 16 is formed at one end of an inner peripheral surface of the fastening member 5. A tapered surface 17 is formed on another end of the inner peripheral surface of the fastening member 5.

Abstract: The invention provides an optical connector for coupling with a complementary optical connector and for supporting an optical component. The connector comprises a cover moveable between a first and second position. The cover may also comprise a moveable shield and biasing components. There is also provided an optical connector assembly comprising covers that sequentially open. A PCB comprising waveguides and an optical component sub-mount for integrating with the PCB is also presented.

Abstract: In an optical transmission module, an optical fiber includes a core wire made of a resin and a cover portion made of a resin and covering the core wire, and has an end surface formed by cutting the core wire and the cover portion by the same plane. A plug includes an optical device optically coupled to the core wire and a sealing resin containing the optical device and having a bottom surface with which the end surface is in contact.

Abstract: An optical fiber connector plug having an anti-snag guide to prevent the plug from being caught on corners and edges when an attached cable is being pulled around corners and edges during installation and removal of the optical fiber connector plug. The optical fiber connector plug includes a unique arrangement of different width apertures corresponding to a removal tool having corresponding different width prongs to be received by the apertures to release the optical fiber connector plug from a coupling adapter.

Abstract: An adapter cap including a cap body, a slot in the cap body, wherein the slot is configured to hold an optical flat, an attachment mechanism configured to attach the cap to an inspection device, and an alignment hole in the cap body, wherein the alignment hole is configured to hold an optical connector ferrule.

Abstract: The disclosure relates to a protection cap assembly for protecting an optical fiber connector assembly. The optical fiber connector assembly includes a first shell and a second shell. The first shell includes a number of first lenses and the second shell includes a number of second lenses. The protection cap assembly includes a first protection cap and a second protection cap. The first protection cap is configured to sleeve over the first shell to enclose the first lenses. The second protection cap is configured to sleeve over the second shell to enclose the second lenses.

Abstract: A device 10 for organizing an array of optical fiber cables (14) terminated with fiber optic connectors (20). The device includes a base plate (22) having a plurality of mounting sites (24) configured to receive a like plurality of dust covers (20) for the respective fiber optic connectors (18). Two or more base plates (22) may be stacked through use of stacking spacers (42) to increase the number of mounting sites (24). The device 10 maintains the array of optical fiber cables during manufacture, shipping and handling, eliminating snarling of the individual optical fiber cables (14).

Abstract: An optical connector protecting cap includes a projecting pulling piece to which a drawing out force is applied to pull out a cap from an optical connector, the projecting pulling piece protruding from a front end wall that covers in one end in an axis line of a cylindrical body placed on the outside of the optical connector.

Abstract: A modular connector assembly is provided that has both an electrical coupling configuration that complies with the RJ-45 wiring standard and an optical coupling configuration that provides the assembly with optical communications capabilities. In addition, the modular connector assembly is configured to have backwards compatibility with existing 8P8C jacks and plugs that implement the RJ-45 wiring standard. Consequently, the modular connector assembly may be used to communicate optical data signals at higher data rates (e.g., 10 Gb/s and higher) or to communicate electrical data signals at lower data rates (e.g., 1 Gb/s).

Abstract: A hybrid connector is disclosed. The hybrid connector comprises a cable, a plug and a connector housing. The cable has an optical waveguide and conductive wires disposed therein. The plug is connected to the cable. The connector housing is configured to mount on the plug. The connector housing is provided with a connector-side locking portion, an optical connection portion and an electrical connection portion.

Abstract: A device for receiving a subassembly, in particular a furcation plug or a furcation adaptor, assigned to an optical fiber cable and for fastening the subassembly received on the device to a mounting, in particular to a wall of a distribution panel or distribution cabinet, via the device, with a bar-shaped basic body, there being formed on a topside of the basic body a guide element for receiving the subassembly assigned to the optical fiber cable, there being formed on an underside, in the region of mutually opposite ends of the basic body, anchoring elements, via which the device can be introduced into recesses of the mounting, whereby the guide element for receiving the subassembly comprises at least two protrusions forming latching elements which engage with shoulders or recesses formed in the subassembly to be received by the guide element when the subassembly is pushed into said guide element.

Abstract: Disclosed is a coupling assembly for use in a telecommunication enclosure. The coupling assembly comprises an optical coupling mounted within the enclosure, a parking lot adapter, and a first optical fiber connector having a key on its housing. The parking lot adapter is axially aligned with and fitted to a first side of the optical coupling. The first optical fiber connector is inserted into the parking lot adapter and is movable between two stable positions. The two stable positions consist of a connected position and a disconnected position.

Abstract: A fiber channel-interchangeable fiber optic connector includes an adapter, two connectors respectively rotatably mounted in respective axle holes at the front side of the adapter, a sub-assembly detachably attached to the adapter to stop the connectors from rotation and hold down the connectors in position, and a cable inserted through the sub-assembly and mounted in the adapter with two optical-fiber cores therein respectively inserted into ferrules of the connectors. Detaching the sub-assembly from the adapter allows rotation of the connectors and the sub-assembly through 180-degrees angle relative to the adapter to interchange the fiber channels.

Abstract: An optoelectrical connector is composed of a plug to which a wire and an optical fiber are assembled and a receptacle to which the plug is inserted and connected. A receptacle includes insulation sleeves and conductive contacts in openings of receptacle housings, and plugs include a ferrule assembled bodies which are composed of an insulation ferrule which holds an optical fiber and a conductive cylindrical member which holds the ferrule and to which a wire is assembled, in an opening of the plug housing. When the plugs are inserted into the receptacle, the contacts and the cylindrical member contact with each other and the ferrules are inserted into the sleeves. Parts which serve electrical connection are not exposed.

Abstract: An optical fiber with a shaped tip is covered by a cap that is fused to the optical fiber using doped silica. The doped silica has a melting temperature that is lower than the melting temperature of the optical fiber. The doped silica also has a melting temperature that is lower than the melting temperature of the cap.

Abstract: Embodiments disclosed herein include furcation plugs having segregated channels to guide epoxy into passageways for optical fiber furcation, and related assemblies and methods. The furcation plugs secure furcated fiber optic cables to fiber optic equipment to prevent the furcated fiber optic cables from being damaged. The furcation plugs, as part of fiber optic furcation assemblies, are typically installed on fiber optic equipment that provides fiber optic components to which the optical fibers are connected. The fiber optic cables may be inserted into fiber passageways of the furcation plugs and secured to the furcation plugs with epoxy. The epoxy may be guided into the fiber passageways through segregated epoxy channels of the furcation plug. In this manner, epoxy may be more uniformly distributed within the fiber passageway to improve the epoxy bonds by reducing the occurrence of air pockets known as voids, which can weaken the epoxy bonds and cause attenuation.

Abstract: An inserting and extracting motion of an optical plug can be easily carried out via a knob, even in a narrow space. An optical connector plug is provided with a stopper guide in a rear portion of an upper surface of a knob to which an optical plug is installed, a spring guide, an outer cover which is provided in an outer surface of the knob, and a spring which is arranged in between the stopper guide and the outer cover. In the optical connector plug, the outer cover is pressed by an optical connector adapter so as to move backward while compressing the spring, whereby a shutter is opened and the optical plug is allowed to protrude forward from the outer cover. The optical connector plug is provided with a grip portion which protrudes up and down and right and left from a rear end portion of the knob.

Abstract: A coupling including an adapter cap end and ferrule dust cap end is provided. The coupling may be used to store disconnected fiber optic lines in physical proximity to their assigned output by using a method of storing a fiber optic network connector. The method includes installing the coupling into a fiber optic network adapter by plugging the adapter cap end into the fiber optic network adapter; and installing the fiber optic network connector into the ferrule dust cap end of the coupling.

Abstract: In a receptacle cage, a front EMI fingers in a tubular shape serving as a first shield member is provided on the entire periphery of a substantially rectangular module slot. In addition, a gap between outer peripheral surfaces of an upper case as well as a lower plate of an optical module connected to a receptacle connector in a receptacle connector accommodating portion and an inner surface of the cage is shielded by a top EMI fingers serving as a second shield member and side EMI fingers serving as third shield members. Moreover, the lower plate comes into contact with a bottom wall portion which is grounded.

Abstract: An optical fiber connector includes a circular polarizer, an optical electrical converter, and a transceiving module. The circular polarizer receives external optical signals from an optical fiber and divides the received optical signals into first optical signals and second optical signals. The optical electrical converter converts the first optical signals into first electrical signals. The transceiving module receives third electrical signals from ports of an optical communication device, and includes an optical electrical converting circuit and an electrical optical converting circuit. The optical electrical converting circuit converts the second optical signals into second electrical signals and transmits the second electrical signals to the optical communication device. The electrical optical converting circuit converts the third electrical signals into third optical signals and transmits the third optical signals to the optical fiber.

Abstract: An optical module includes an electromagnetic wave absorption member. The electric connection member includes a floating portion which is in a floating state spaced apart from the housing and at a position away from a mounting portion by which the electric connection member is mounted on the housing in the direction opposite to the direction that the optical module is inserted into a cage. At least a portion of the electromagnetic wave absorption member is arranged between the housing and the floating portion. The floating portion is brought into contact with an inner side of the cage so as to establish the electrical connection with the inner side of the cage when the housing is inserted into the cage.

Abstract: This disclosure describes a fiber optic enclosure in which a cable entry port is sealed using a wedge that compresses a gasket that surrounds a fiber optic cable. As described herein, a fiber optic enclosure may include one or more entry ports through which fiber optic cables pass. As one of the fiber optic cables passes through one of the entry ports, the fiber optic cable passes through a gasket located in a receptacle behind the cable entry port. A wedge compresses the gasket, thereby compressing the gasket. When the gasket is compressed, the gasket exerts radial pressure on the fiber optic cable. In this way, the gasket forms a seal around the fiber optic cable.

Abstract: In an aspect there is provided a connector device. The connector device may include a cable connector having a housing having an opening at a first end and a cable gland at a second end; and a sleeve having an internal channel configured to interchangeably couple with an electrical transceiver module type and an optical transceiver module type. The internal channel may extend between a first end and a second end of the sleeve. The first end of the sleeve may be configured to insert through the opening in the housing to releasably couple the sleeve to the housing. The second end of the sleeve may be configured to insert through a port on a unit and couple the electrical transceiver to an edge connector on a printed circuit board (PCB) when the electrical transceiver is coupled with the sleeve. The second end of the sleeve may be further configured to insert through the port on the unit and couple the optical transceiver to the edge connector on the PCB when the optical transceiver is coupled with the sleeve.

Abstract: The present invention relates to a field of optical fiber communication. A safeguard device for a fiber adapter used to connect an input optical fiber connector with an output optical fiber connector is provided. In a preferred embodiment, the safeguard device comprises a shutter and a shutter locking unit. The shutter is operably provided at an interface of said fiber adapter to allow the interface to switch between an open position and a closed position, wherein, the shutter at least shuts off the optical beam emitted from the input optical connector when in said closed position. The shutter locking unit is adapted for selectively locking the shutter in the open position or in the closed position.