Abstract: Disclosed are optical ports and devices having a minimalist footprint. Specifically, the optical ports and devices have a footprint where the optical elements are exposed at a frame of the device. Additionally, a frame of the device provides a portion of the mating surface for engaging a complimentary optical plug during mating with the optical port on the device. This minimalist footprint advantageously allows for a smaller portion of the optical port to be exposed to the environment and subject to damage and/or wear. Further, the optical port provides a clean and sleek optical port on the device with a relatively small surface that may be cleaned or wiped by the user as necessary.

Abstract: An optical fiber may be secured to a ferrule of an optical connector with an adhesive mixture. The optical fiber may be secured by preparing an adhesive mixture, disposing the adhesive mixture in a fiber-receiving passage defining an inner surface of the ferrule, inserting the optical fiber into the fiber-receiving passage and into contact with the adhesive mixture, and curing the adhesive mixture. The adhesive mixture may be prepared by forming a base mixture that includes a base solvent, an alkyltrialkoxysilane, an aryltrialkoxysilane, and an aryltrifluorosilane. The adhesive mixture may be cured by heating to a temperature of at least about 200° C. and cooling to room temperature or below.

Abstract: A fiber optic connector includes a front housing having sidewalls each defining a slot and a rear insert with a pair of locking flanges extending radially away, the locking flanges configured to snap-fit into the slots, each locking flange defining a front face and a rear face, the radially outermost portion of the rear face defining an edge, the edge being the rearmost extending portion of the locking flange. Another fiber optic connector includes a front housing defining a front opening at a front end, a circular rear opening at a rear end, and an internal cavity extending therebetween. A rear insert including a generally cylindrical front portion is inserted into the front housing through the circular rear opening, the front portion defining at least one longitudinal flat configured to reduce the overall diameter of the generally cylindrical front portion configured to be inserted into the front housing.

Abstract: A fiber optic plug assembly for a fiber optic cable includes a plug body and cable attachment element. The plug body has a main portion with a front end and back end and at least one latching arm extending from the main portion. The cable attachment element has a front portion received in the back end of the main portion of the plug body, a rear portion located outside of the plug body, and a passage configured to allow at least one optical fiber to extend through the cable attachment element and into the main portion of the plug body. The rear portion of the cable attachment element receives at least a portion of the at least one latching arm. An optical connector system with a fiber optic plug assembly is also provided.

Abstract: A method for processing ferrules for fiber optic connectors is disclosed herein. The method involves ablating a distal end face of the ferrule with the plurality of laser beam pulses to remove a distal layer of the ferrule without removing an optical fiber secured within the ferrule. By removing the distal layer from the ferrule, the optical fiber is caused to protrude distally outwardly from the distal end of the ferrule by a desired amount.

Abstract: A connector plug arrangement (330, 600, 700) includes a connector body (334, 610, 720); and an indication component (335, 650, 750). The indication component (335, 650, 750) includes a first portion (337, 653, 751) that is disposed at a rear end of the connector body and a second portion (339, 654, 753) that extends outwardly from the first portion (337, 653, 751). The first portion (337, 653, 751) is configured to extend along a circumferential perimeter of the connector body (334, 610, 720). The second portion (339, 654, 753) is configured to extend along the longitudinal axis of the connector body (334, 610, 720).

Abstract: A subsea connector unit with an integrated, bi-directional electrical to optical (EO) media converter is provided which has a first end configured for connection to standard subsea electrical cable connector unit and a second end joined to a subsea optical or electro-optical ethernet jumper cable. The EO media converter has one or more electrical input/output (I/O) junctions which communicate with electrical signal conductors in a connected electrical ethernet cable and one or more optical I/O junctions which are connected to one or more optical fibers extending from the subsea jumper cable. Electrical input signals received at the electrical I/O junctions are converted into corresponding optical signals provided at the optical I/O junctions for transmission along the subsea jumper cable, and optical input signals received from the jumper cable are converted to electrical signals at the electrical I/O junctions for output to the electrical cable.

Abstract: A cable termination device may include one or more components that are generic to multiple types and/or sizes of cable. The device may further comprise one or more components that are specific to a particular cable type and/or size. The cable-generic components can be combined with cable-specific components applicable to the particular cable type and/or size so as to assemble a termination device attached to an end of a cable of that particular type and/or size. The cable-generic components could alternatively be combined with cable-specific components applicable to a different cable type and/or size so as to assemble a termination device attached to an end of a cable of that different type and/or size.

Abstract: A small form-factor pluggable (SFP) optical transceiver includes a casing configured to accommodate optical and electrical devices. During normal operation, the casing is connected to a switchboard via a connector in the switchboard, and the optical devices are outside the switchboard, thereby exposing optical devices sensitive to high temperature to the outside air, reducing the operational temperature of the optical device portion relative to the heated portion inside the switchboard. Thus, the present SFP optical transceiver advantageously improves operational performance and extends the life of the device. Also, the present SFP optical transceiver having the optical device portion outside the switchboard advantageously improves the cooling performance for the optical device portion.

Abstract: A multiport optical fiber connection terminal with a compact footprint has a configuration that allows for easy accessibility and interconnection of cables, while providing several mounting options and including storage space within the terminal. The terminal may include cable connectors that are configured to allow for weather proof installation of pre-terminated fiber optic cables with the terminal ports.

Abstract: An optical fiber connector assembly includes a first, and second plug connectors, and a socket connector. The first plug connector includes a first main portion and a first plate with a first front surface defining alignment holes. A first distance is defined between the first front surface and the first main portion. The second plug connector includes a second main portion and a second plate with a second front surface. A second distance is defined between the second front surface and the second main portion. The socket connector includes a side surface defining a recess with a bottom surface. A third distance is defined between the side surface and the bottom surface. Alignment pins extend from the bottom surface. The length of each alignment pin is defined as a fourth distance. The third distance is equal to the first distance and greater than sum of the second and fourth distances.

Abstract: An optical connecting structure has an optical fiber, a pressing member having a circular outer cross section, and an optical member, wherein the optical member has an optical element, an optical fiber stopper structure, and an optical fiber holding groove, wherein the optical fiber stopper structure is positioned between the optical element and the optical fiber holding groove, wherein the optical fiber is inserted along the optical fiber holding groove so as to contact with the optical fiber stopper structure, and wherein the pressing member is arranged on the optical fiber holding groove mutually perpendicular, the pressing member presses the upper surface of the optical fiber to a direction of a bottom of the optical fiber holding groove, and the optical fiber and the optical element are thereby optically connected.

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 cable assembly includes an optical cable having an end that extends a length. The optical cable includes a plastic optical fiber (POF) and a buffer surrounding the POF along a portion of the length of the end of the optical cable. A terminus assembly terminates the end of the optical cable. The terminus assembly includes a terminus body having a cable passage and a crimp zone. At least a portion of the length of the end of the optical cable extends within the cable passage of the terminus body such that the terminus body surrounds the buffer of the optical cable at the crimp zone. The terminus body is mechanically crimped over, in engagement with, the buffer of the optical cable at the crimp zone.

Abstract: An optical cable assembly includes an optical cable having an end. The optical cable includes a plastic optical fiber (POF) having a tip segment that includes a tip surface. The optical cable assembly also includes a socket terminus assembly that terminates the end of the optical cable and is configured to mate with a pin terminus assembly. The socket terminus assembly includes a terminus body having a cable passage. At least a portion of the end of the optical cable extends within the cable passage such that the tip surface of the tip segment of the POF is configured to engage a mating POF of the pin terminus assembly to optically couple the POF to the mating POF.

Abstract: Circuits, apparatus, and methods that provide a connector system that can supply both power and data to a mobile computing or other type of device using a single connection. Further examples also provide a power and data adapter that can provide power and data to a mobile computing device using a single cable. Further examples provide an easy disengagement when a cable connected to the connector is pulled. One such example provides a magnetic connector that uncouples without binding when its cord is pulled. Another example prevents power from being provided at a connector insert until the connector insert is placed in a connector receptacle.

Abstract: An optical fiber connector preloaded with an adhesive is provided. The optical connector includes an optical fiber-receiving passage. The passage includes a first passage section extending inwardly from the first face, and the first passage section has a first width. The passage includes a second passage section extending inwardly from the second face, and the second passage section has a second width. The second width is less than the first width. The passage includes a transition passage section located between the first passage section and the second passage section. The transition passage has a variable width, and the variable width of the transition section decreases as the distance to the second face decreases. A meltable adhesive composition is located within the transition passage section and is configured to bind an optical fiber to an inner surface of the second passage following melting and solidification of the adhesive composition.

Abstract: An optical waveguide type optical terminator forms an optical waveguide structure including at least an optical absorption core (103) which is formed on a clad layer (102) and includes a portion composed of silicon in which an impurity of 1019 cm?3 or more is doped, and is used by being optically connected in series with an optical waveguide including a core (105) composed of silicon. The optical absorption core (103) is sufficient provided that, at least, an impurity of around 1019 cm?3 is doped therein. For example, its impurity concentration is sufficient provided that it falls within a range of 1019 -1020 cm?3. The existence of this impurity causes absorption of light in the optical absorption core (103).

Abstract: Fiber optic modules, fiber optic connectors, and methods are disclosed. In one embodiment, a fiber optic module includes a body and a fiber tray. The body includes a fiber tray recess extending from a first surface, a fiber-end datum surface positioned an end of the fiber tray recess, and a plurality of lens surfaces. The plurality of lens surfaces, the fiber-end datum surface, and intervening portions of the body define a plurality of lenses each having a linear optical axis. The fiber tray includes a plurality of fiber support features disposed on a first surface. The plurality of fiber support features is configured to receive a plurality of optical fibers. The fiber tray is disposed within the fiber tray recess and secured to the body.

Abstract: This invention relates generally to a method and apparatus to engage and suspend an electrical contact of a cylindrical and elongated configuration. In accordance with the invention and described is a hollowed out, cylindrical and elongated device having two pair of spaced apart cantilever beams which extend forwardly from a base to a pin receiving end wherein the counter levered beams of each pair are opposing each other and are equally spaced along the entire circumference wherein a pin like cylindrical object engages through the hollowed out portion and urges against the cantilevered beams in a fashion to increase the distance between the opposing beams.

Abstract: A subsea cable termination assembly for a subsea cable that includes an optical fiber for data transmission is provided. The subsea cable termination assembly includes a chamber that has a liquid tight seal against an ambient medium surrounding the subsea cable termination assembly, and a media converter arranged in the chamber. The media converter includes an optical interface adapted to be connected to an optical fiber of the subsea cable, and an electrical interface. The subsea cable termination assembly also includes an electric contact arranged outside the chamber and electrically connected to the electrical interface of the media converter arranged inside the chamber.

Abstract: A reconfigurable polarity detachable connector assembly includes a housing defining two accommodation channels and providing a springy protruding member at a top side, two mating simplex connectors respectively detachably mounted in the accommodation channels of the housing, a fiber optic cable fastened to the housing with two optical fiber cores thereof respectively inserted into respective calibration support rods of the mating simplex connectors, and a sliding cap slidably coupled to the housing. The sliding cap is unlocked and can be moved backwardly relative to the housing to expose the optical fiber cores of the fiber optic cable to the outside of the housing for allowing position exchange between the two mating simplex connectors after the user presses the springy protruding member.

Abstract: An optical cable connector is disclosed herein. The optical cable connector includes a housing; an aperture on a side of the housing for receiving unsplit duplex optical cable; a sharp edge, disposed within the housing and positioned to split a portion of the optical cable into two optical fibers when the cable is inserted into the aperture, the fibers for carrying optical signals; and electro-optical transceivers, disposed within the housing and aligned with the two optical fibers to receive the optical signals, the transceivers configured to convert the optical signals into electrical signals. Integrating the sharp edge within the connector precludes a user from having to manually split optical cable prior to inserting the cable into the connector, thereby making the connector relatively easy to use and reducing the likelihood the user will be injured.

Abstract: Underwater connecting apparatuses include a flexible diaphragm that at least in part defines a wall of a chamber configured to contain a fill material, the wall having a perimeter with a non-circular profile when the chamber is viewed in cross-section. The non-circular profile of the perimeter is configured to allow a volume of the chamber to change without substantially changing a length of the perimeter.

Abstract: An optical fiber cable includes an optical fiber; a sheet of reinforcing tape rolled around a majority of an annular sidewall of the optical fiber; and a jacket surrounding the rolled sheet of reinforcing tape. The sheet has parallel longitudinal edges that are circumferentially spaced from each other to form a longitudinal slit along a length of the sheet of reinforcing tape. The reinforcing tape is formed of a polymeric material having uni-directionally oriented molecules along the length of the sheet. The jacket is heat-bonded to the sheet of reinforcing tape.

Abstract: A planar optical waveguide part that includes an optical waveguide, a planar conductive wire part that includes a conductive wire, and a connecting end part formed on the lengthwise direction end part, wherein the connecting end part is provided with an optical waveguide end part formed on the lengthwise direction end part of the conductive wire part, a conductive end part formed on the lengthwise direction end part of the conductive wire part, and an intermediate plate intervening between the optical waveguide end part and the conductive end part; the optical waveguide end part, conductive end part, and intermediate plate are bonded by layering; and a bonding pad where components are bonded is formed by ultrasonic bonding to the top surface of the conductive end part.

Abstract: The present invention relates to an end cap for terminating a transmission cable containing at least one transmission line, the end cap comprising at least one lead-through opening for guiding the at least one line from a rear side to a front side of the end cap. Further, the invention relates to a terminating arrangement terminating a transmission cable containing at least one transmission line. Moreover, the invention relates to a kit for a terminating arrangement for terminating a transmission cable. In order to facilitate the termination of a transmission cable, the present invention provides that a passage extending from the rear side to the front side is formed at the end cap, the passage being adapted for accommodating a central strength member of the cable.

Abstract: A connector incorporating a module, in which an incorporated electrical component may be cooled efficiently and reliably, is provided. A transmission apparatus disposed inside a main body cover of a module-incorporating connector is provided with a ceramic board at which an electrical component and such are mounted. A metal cover touches an upper face of the electrical component. A portion of the metal cover is disposed in an insertion portion of the main body cover. Heat generated by the electrical component is propagated via the metal cover to the insertion portion of a first cover member. When the module-incorporating connector is connected to a socket of a device, the insertion portion is disposed inside an exterior case, in which temperature is controlled by an air conditioner, and cooling is performed reliably and efficiently.

Abstract: A fiber optic connector arranged to be releaseably connected to a fiber optic adaptor. The fiber optic connector includes a body configured to receive and terminate two optical fibers, and a latch mechanism provided on the body. The latch mechanism is configured for releasable engagement with each of two sockets of the fiber optic adaptor. The latch mechanism of the fiber optic connector is configured for actuation in a direction laterally across the body.

Abstract: A reconfigurable polarity detachable connector assembly includes a housing defining two accommodation channels and providing a springy protruding member at a top side, two mating simplex connectors respectively detachably mounted in the accommodation channels of the housing, a fiber optic cable fastened to the housing with two optical fiber cores thereof respectively inserted into respective calibration support rods of the mating simplex connectors, and a sliding cap slidably coupled to the housing. The sliding cap is unlocked and can be moved backwardly relative to the housing to expose the optical fiber cores of the fiber optic cable to the outside of the housing for allowing position exchange between the two mating simplex connectors after the user presses the springy protruding member.

Abstract: A fiber optic connector assembly includes a connector and a carrier. The connector has a first mating end and a second end and a first optical fiber terminated thereto. The fiber defines a first end adjacent the mating end and a second end protruding from the second end of the connector. A polymeric carrier having a connector end and an oppositely disposed cable end is engaged with the connector. The carrier includes a heat activated meltable portion adjacent the cable end. An alignment structure is disposed on the carrier that includes a first end, a second end, and a throughhole. The first end of the alignment structure is for receiving the second end of the first optical fiber and the second end of the alignment structure is for receiving an end of a second optical fiber entering the cable end of the carrier.

Abstract: In the present disclosure, a termination apparatus and process is disclosed that optimizes the termination of polymer optical fiber ribbons, eliminates the need for a ferrule and connector, and utilizes lower-cost materials instead of diamond for the cutting blade.

Abstract: A fiber optic connector has a connector outer housing and a connector inner housing. The connector inner housing has a projection to interact with a latch on an adapter into which the connector is inserted. The force required to move the connector outer housing relative to the connector inner housing is less than the force to remove the connector inner housing from the latch. A groove or opening may also be formed in the connector outer housing to effectively shorten the connector outer housing and prevent interaction of the latch with the outer housing, reducing debris.

Abstract: An optical fiber connector is used for fastening a cable. The optical fiber connector includes a front housing, a fiber joining assembly, a fastening sleeve, and a rear housing. The front housing includes a base portion and a fixing portion extending from an end of the base portion. The fixing portion is applied for fastening the cable. The fastening sleeve is sleeved on the fixing portion of the front housing. The fiber joining assembly is received in the base portion of the front housing. The rear housing is sleeved on the fixing portion and is fastened to the base portion.

Abstract: An optical fiber connector according to the present disclosure includes a housing, a tab, a vertical portion, a horizontal portion and a handle member. According to the optical fiber connector of the present disclosure, wherein a pull at the handle member may pull out the optical fiber connector from the optical fiber adapter without need to press a tab on the optical fiber connector directly.

Abstract: A cable termination device may include one or more components that are generic to multiple types and/or sizes of cable. The device may further comprise one or more components that are specific to a particular cable type and/or size. The cable-generic components can be combined with cable-specific components applicable to the particular cable type and/or size so as to assemble a termination device attached to an end of a cable of that particular type and/or size. The cable-generic components could alternatively be combined with cable-specific components applicable to a different cable type and/or size so as to assemble a termination device attached to an end of a cable of that different type and/or size.

Abstract: An optical fiber connector includes optical fibers, a connector body, and positioning members. The optical fibers are received in the respective through holes, and pass through the respective first recesses, the respective separating portions, and the respective second recesses, and aligned with the optical lenses. The three engagement posts of the positioning member are arranged above a through hole and surround a receiving room. The three engagement posts and a separating portion cooperatively retain an optical fiber in the connector body.

Abstract: Device for the coaxial connection of fiber-optic cables, comprising a single-piece coupling housing (10) and a single-piece sleeve mount (20), the sleeve mount (20) being designed with at least one latching nose (21) and the coupling housing (10) being designed with at least one latching mount which complements the at least one latching nose (21), wherein the latching mount is designed with at least one latching hook (14) and at least one stop (15).

Abstract: An optical connector includes an optical cable and a connector housing. The optical cable includes an optical fiber having a core and a clad which covers an outer surface of the core, and a sheath covering an outer surface of the optical fiber, and wherein a front end part of the optical fiber is exposed from the sheath, and the front end part including a front end of the optical fiber. The connector housing accommodates the front end part of the optical fiber which is exposed from the sheath and holds a part of the front end part of the optical fiber.

Abstract: A communications connection system includes an SC fiber optic connector including a storage device having memory configured to store physical layer information. The storage device also includes electrical contacts or an RFID antenna coil connected to the memory for transmitting information to a management system. The communications connection system also includes a fiber optic adapter module having one or more media reading interfaces. Each media reading interface is configured to read physical layer information stored on one of the fiber optic connectors received at the adapter module. Example media reading interfaces include electrical contacts and RFID readers.

Abstract: The optical connection device comprises a housing body (20) having a transceiver cavity (21) to receive an optical transceiver and an approaching channel formed about a longitudinal axis (15) to receive a plastic optical fibre (10) having a termination (11) adjacent to and aligned with said optical transceiver, a deformable clamp arranged around said plastic optical fibre (10), and a movable fixer element (40) configured to deform said deformable clamp to grip the plastic optical fibre (10) when said fixer element (40) is moved in a fixing direction with respect to said housing body (20). The fixer element (40) is moved in said fixing direction by a fixer spring member (70) and a releaser element (50) is arranged to move the fixer element (40) in an opposite releasing direction for releasing the deformable clamp when said releaser element (50) is manually depressed.

Abstract: A fiber optic trunk cable that can be used for connecting multi-channel transceivers includes: a plurality of optical fibers; and first and second terminals attached to opposite ends of the fibers, each of the terminals having an alignment key. The fibers enter the first terminal in an arrangement of 2N rows, wherein N is an integer, and enter the second terminal in an arrangement of 2N rows. Each fiber defines a position in the first terminal with respect to the alignment key that is laterally transposed and row-inverted to the position the fiber defines in the second terminal Such a cable can be employed with appropriate equipment cords and transceivers.

Abstract: An optical fiber connector includes a coupling portion. The coupling portion includes a first end surface and an opposite second end surface. The first end surface includes a number of lenses arranged thereat and a number of engaging holes formed therein. The second end surface includes a number of optical fiber holes formed therein and aligned with the respective lenses, and a number of posts formed thereon. Each of the posts has a spring member arranged thereon.

Abstract: Indexable optical fiber connectors, optical connector arrays, and optical connector systems are disclosed. According to one embodiment, an optical fiber connector includes a connector body comprising an optical coupling face and a connector housing that surrounds the connector body. The connector housing includes a first interconnecting surface having an indentation arraying feature, and a second interconnecting surface having a protrusion arraying feature. The first interconnecting surface and the second interconnecting surface are orthogonal to the optical coupling face. The indentation arraying feature is configured to mate with a corresponding protrusion arraying feature of a first adjacent interconnecting optical fiber connector by a non-locking engagement relationship. Similarly, the protrusion arraying feature is configured to mate with a corresponding indentation arraying feature of a second adjacent optical fiber connector by a non-locking engagement relationship.

Abstract: A fiber optic connector assembly includes a connector and a carrier. The connector has a first and second ends and a terminated fiber. The fiber defines a first end adjacent the first end of the connector and a second end protruding out of the second end of the connector. A carrier having a connector end and an opposite cable end is engaged with the connector. An alignment structure on the carrier includes a first end, a second end and a throughhole and also a cutaway extending perpendicularly to and communicating with the throughhole. The fiber is positioned within at least a portion of the throughhole with the second end located within the cutaway. A window is within the cutaway over the second end of the fiber for visually inspecting the alignment of the second end of the fiber with an end of another fiber.

Abstract: An adapter that comprises an outer housing, an inner shell, a contact insert, and at least one of an optical contact and an electrical contact. The outer housing has opposing first and second ends, and at least the first end has a coupling member. The inner shell has opposing first and second ends and is received in the outer housing. The first end corresponds to the first end of the outer housing. First and second receiving sections are defined in the inner shell and terminate at the first and second ends, respectively. The contact insert is received in the first receiving section of the inner shell. The contact insert has a dielectric body and at least one passageway extending therethrough. The at least one optical contact and electrical contact are received in the at least one passageway of the contact insert.

Abstract: A USB connector comprises a USB connector body and an optical module including an optical transmitter and an optical receiver engaging with the USB connector body. The USB connector body comprises a metal shell having a first opening adapted for connecting with an external plug; a second opening communicating with the first opening and adapted for accommodating the optical module; and a locking device adapted for locking the optical module within the USB connector body. The present invention can serve as an active optical transceiver, and simplify the structure and reduce manufacturing cost, further reduce the loss of optical signals and, in turn improve the transmission performance.

Abstract: The invention relates to an optical communications system, including an optical module, including a module motherboard provided with a substrate having an upper surface and a lower surface, an optical component on the upper surface of the substrate, the optical component being configured to submit and/or receive optical signals and being connected to electrical conductors extending through the substrate, an optical coupling module having a first light coupling port, a second light coupling port, and at least one light guiding component guiding light signals between the first and second light coupling ports, and a connector receptacle, a longitudinal axis of the connector receptacle being provided parallel or with an acute angle to the plane of the substrate, and a fiber cable connector provided on an end portion of an optical fiber cable and received in the connector receptacle.

Abstract: The invention relates to a fiber-optic connection arrangement, with the connection arrangement (21) comprising a fiber-optic adapter (2), with the fiber-optic adapter (2) having a first connecting device (38) for a first connecting plug (11) and a second connecting device (6) for a second connecting plug (17), with the first and the second connecting devices (38, 6) being different, with the fiber-optic adapter (2) having at least one first adapter-side attachment means, with the first adapter-side attachment means being in the form of an external thread (8) with a first adapter-side nominal diameter, wherein the connection arrangement (21) furthermore comprises an adapter sleeve (26), with the adapter sleeve (26) having a first end section (27) with a first opening (28), and a second end section (29) with a second opening (30), with the first end section (27) having a first sleeve-side attachment means, with the first sleeve-side attachment means being in the form of a first internal thread (36), with the fi

Abstract: Optical connectors, optical coupling systems, and methods of optical coupling are disclosed. In one embodiment, an optical connector includes a plug housing, at least one optical fiber, an internal coupling surface, and a translating element. The translating element has a first coupling surface, a second coupling surface, and at least one optical component within the translating element. The translating element is biased such that when the optical connector is in a disengaged state, the translating element is positioned toward an optical connector opening and the second coupling surface of the translating element is displaced from the internal coupling surface. When the optical connector is in an engaged state, the translating element is positioned such that the second coupling surface of the translating element is positioned at the internal coupling surface and the optical fiber is optically coupled to the optical component.