Abstract: An adapter panel arrangement including a chassis and a panel of adapters. The adapters defining open rearward cable connections and open forward cable connections of the panel arrangement. The adapters being arranged in arrays that slide independently of other adapter arrays to provide access to the open rearward and open forward cable connections.

Abstract: The present invention provides modular trays having cutout features that are configured to engage with a mounting feature of one or more removable rails. The removable rails may be removably secured to a tray body in a plurality of positions to allow a user to install or uninstall rails to support different sized fiber optic modules. For example, a tray may support a twenty-four optical fiber module, two twelve optical fiber modules, or three eight optical fiber modules. Fiber optic enclosures housing the trays can be affixed to the outside of a fiber optic enclosure and allow for easy stacking and unstacking.

Abstract: An optical fiber distribution element includes a chassis defining an interior; a movable tray slidably movable from within the chassis to a position at least partially outside the chassis, the tray defining a front end and a rear end; a slide mechanism which connects the movable tray to the chassis; at least one hingedly mounted frame member within the tray which hinges about an axis perpendicular to the direction of movement of the movable tray; and a cover mounted adjacent the rear end of the tray and movable between an access position and an operational position when the tray is in the open position, only the operational position of the cover allowing the tray to move from the open position to the closed position, the access position al lowing access to the at least one hingedly mounted frame member, and the cover in the access position preventing the tray from moving from the open to the closed position.

Abstract: A fiber optic distribution frame includes a casing and a plurality of tray units disposed in the casing. Each tray unit includes a partition plate, a plurality of inner guiding rails disposed on the partition plate, and a plurality of mounting seats each disposed between adjacent two of the inner guiding rails and movable forwardly and rearwardly to be removed from the adjacent two of the inner guiding rails.

Abstract: An optical fiber distribution frame includes a casing and a plurality of tray units disposed in the casing. Each tray unit includes a partition plate, a plurality of inner guiding rails disposed on the partition plate, a plurality of mounting seats each removably disposed between adjacent two of the inner guiding rails, and a plurality of cable management members disposed respectively in front of the inner guiding rails and each including a lower clamp portion fixed to the partition plate, and an upper clamp portion cooperating with the lower clamp portion to define a cable accommodating space, having one end that cooperates with one end of the lower clamp portion to define an open slot in spatial communication with the cable accommodating space, and operable to adjust a dimension of the open slot to allow or prevent removal of optical fibers from the cable accommodating space.

Abstract: Devices and method introduce micro-modifications into an optical waveguides. The devices comprise and the methods utilize a focusing optical unit for focusing a laser pulses into a core region of the optical waveguide, at least one motor-driven adjustment device for carrying out a linear movement between the optical waveguide and a focus of the focused laser beam pulse, a holder for the optical waveguide, and a rotation device for rotating the optical waveguide, wherein the at least one motor-driven adjustment device is configured for moving the focal position through the optical waveguide, while the rotation device is configured to modify a rotational speed of the optical waveguide.

Abstract: The disclosed fiber optic cable splice case may include (1) an outer enclosure with a plurality of cable funnels defining paths from an exterior to an interior of the outer enclosure, (2) a clamp connected to the exterior of the outer enclosure, where the clamp attaches the outer enclosure to a powerline conductor, and (3) an inner enclosure positioned at least partially within, and rotatably coupled to, the outer enclosure, where the inner enclosure defines (a) a splice cavity within the inner enclosure, where the cavity is configured to store an optical fiber splice tray for coupling corresponding optical fibers of each of a pair of fiber optic cable segments and (b) a cable channel about an exterior of the inner enclosure, where the cable channel carries a portion of each of the pair of segments between the funnels and the cavity. Various other components and methods are also disclosed.

Abstract: A terminal includes modules adapted to be sequentially assembled together in a serial chain to build the terminal. At least some of the modules each include a module housing, a ruggedized optical output port provided on the module housing, a plug and play input connection location, a plug and play expansion connection location provided on the module housing, and an asymmetric power splitter within the module housing for splitting optical power from the plug and play input location asymmetrically between the ruggedized optical output port and the plug and play expansion connection location. The plug and play input connection locations and the plug and play expansion connection locations of adjacent modules in the serial chain are adapted to mate with respect to one another.

Abstract: An adapter structure for fixing a portion of a telecommunications cable to a telecommunications device and directing fibers within the cable into the device includes a crimp body and an outer mounting body. The crimp body defines a first side and a second side separated by a center portion and also includes two flexible legs extending from the first side and an integral crimp portion extending from the second side that has outer surface texturing. The outer mounting body includes a through-hole, where the two flexible legs of the crimp body fit into one end of the through-hole. It also includes tabs on opposing sides of the outer mounting body for slidable insertion into slots defined by the telecommunications device to prevent movement of the outer mounting body in a front to back direction, relative to the device.

Abstract: A cable distribution box includes a base plate, a proximal wall extending from a first side of the base plate, a distal wall extending from a second side of the base plate, a latch formed on a third side of the base plate, and a cover plate extending from the proximal wall. The latch is configured to secure the cable distribution box to a chassis. The cover plate has a center portion that projects towards the base plate, such that the center portion is configured to wrap a cable thereon. The cover plate is foldable along a length of the proximal wall, relative to the base plate in a clamshell fashion, to enclose the wrapped cable between the cover plate and the base plate. The cover plate includes a locking mechanism that is configured to engage the distal wall, and secure the cover plate onto the base plate.

Abstract: A telecommunications frame assembly includes a frame for housing a first set of fiber optic distribution devices in a vertically stacked arrangement on a right side of the frame and a second set of fiber optic distribution devices in a vertically stacked arrangement on a left side of the frame, wherein the frame defines top and bottom openings adjacent the outer edges of the frame at each of the right side and the left side for selectively leading cables to or from the fiber optic distribution devices to be mounted on the frame, the frame further defining a central vertical trough extending from a central top opening defined by the frame, wherein radius limiters are provided in vertically stacked arrangements at each of the right side and the left side of the frame for selectively guiding cabling between the first set and the second set of fiber optic distribution devices, wherein the radius limiters allow cabling to pass through the central trough between the right and left sides of the frame and/or into the

Abstract: Disclosed herein is a demarcation enclosure that includes a base. The base includes an interior cavity. The demarcation enclosure also includes a cover that selectively encloses the base. The demarcation enclosure further includes a tray that is removably attachable to the base, within the interior cavity of the base, and that includes a mounting plate. The mounting plate has a first side and a second side that is opposite the first side. The tray further includes an outer ring coupled to and protruding from the second side of the mounting plate, and an axle coupled to and protruding from the second side of the mounting plate at a center of the outer ring.

Abstract: An apparatus implements a cable distribution module. The apparatus includes a trunk cable with inner cables and includes breakout cables that correspond to the inner cables. The apparatus further includes a transition breakout between the trunk cable and the breakout cables and includes an outdoor rated path that includes the trunk cable, the transition breakout, and the one or more breakout cables. The apparatus further includes connectors to which the breakout cables are connected and an unsealed module supporting the one or more connectors.

Abstract: There is provided an optical fiber array that can be easily optically connected to cores of optical waveguides on a connection counterpart substrate without requiring a complicated fabrication process to the connection counterpart substrate and laborious diffusing fusion of the cores. In an array, coating-removed exposed portions of fibers are attached to grooves that are provided on a lower substrate in order to position the optical fibers. Further, the exposed portions are pressed by a lid. Coated portions of the fibers are placed on a flat surface of a concave portion that is provided on the substrate to form a step with the grooves in a state where the exposed portions are attached. Front end parts of the exposed portions of the fibers each have a light collecting portion that collects light beams passing through an inside of the corresponding fiber to reduce an MFD.

Abstract: The present disclosure provides an optical fibre. The optical fibre includes a glass core, a glass cladding, a primary coating layer, and a secondary coating layer. The glass cladding surrounds the glass core. In addition, the primary coating layer sandwiched between the glass cladding and the secondary coating layer. Further, the secondary coating layer surrounds the primary coating layer. The primary coating layer has diameter of up to is in the range of 130 to 155 micrometers. Furthermore, the secondary coating layer has diameter in a range of about 160 micrometers to 180 micrometers. Moreover, diameter of the optical fibre is about 190 micrometers.

Abstract: Connector assemblies for insertion into a port structure of a telecommunication enclosure to provide an environmentally sealed connection are disclosed herein. An exemplary connector assembly includes a forward connector housing, an intermediate body positioned over a portion of the forward connector housing, an optical connection portion coupled to the forward connector housing, and an adapter, positionable over the intermediate body. The intermediate body comprises a forward portion and a rearward portion, with the forward portion including an external key and a plurality of trigger elements. Each trigger element has a foot portion and a locking portion, and the rearward portion includes an orientation key in substantial alignment with the external key.

Abstract: A management tray is disposed inside a drop terminal to organize and guide optical fibers. The management tray may define an anchor station, connector storage stations, a splice retention station, a fanout station, and/or a splitter retention station.

Abstract: Sealed optical cable assemblies are disclosed. In one embodiment, an optical connector includes an optical cable having an end, a connector body coupled to the end of the optical cable, and a sealing grommet disposed over the optical cable. The optical connector further includes a connector housing having a first housing end portion, a second housing end portion, an internal cavity. The internal cavity has an interior surface proximate the second housing end portion. The connector body is disposed within the internal cavity of the connector housing. The sealing grommet is positioned within the internal cavity such that an outer surface of the sealing grommet is in contact with the interior surface of the second housing end portion. The connector body and the optical cable are movable relative to the connector housing in an axial direction of the optical connector, and the sealing grommet is deformable to accommodate movement of the connector body and the optical cable relative to the connector housing.

Abstract: A fiber optic enclosure assembly includes a housing having an interior region and a bearing mount disposed in the interior region of the housing. A cable spool is connectedly engaged with the bearing mount such that the cable spool selectively rotates within the housing. A termination module disposed on the cable spool so that the termination module rotates in unison with the cable spool. A method of paying out a fiber optic cable from a fiber optic enclosure includes rotating a cable spool, which has a subscriber cable coiled around a spooling portion of the cable spool, about an axis of a housing of the fiber optic enclosure until a desired length of subscriber cable is paid out. A termination module is disposed on the cable spool.

Abstract: A new boot for a fiber optic connector has a ribbed back portion, a center portion, and a forward extending portion that can be used to insert and remove the fiber optic connector to receptacle. The ribbed back portion has grasping elements and is connected to the center portion. The center portion is removably connected to a crimp body that is in turn connected to the connector housing. The front extension is connected to the fiber optic connector and also provides a keying feature depending on the side of the fiber optic connector on which it is installed.