Clearfield, Inc.

Randy T VanHorn

John P Hill

Walter Ernest Power, Ii

Daniel J Johnson

Joshua J Povlitzki

Brian Larson

Timothy John Kjolsing

David J Johnsen

William Joseph Cruzen

Donovan J Hample

Brian S Schrand

A fiber distribution hub comprises a housing, a first side panel and a second side panel comprising one or more ports, and at least one cover disposed between the first side panel and the second side panel and forming an interior compartment. The interior compartment may include cable managers. A mounting structure aerially strand mounts the fiber distribution hub. Fiber distribution hubs comprising a first fiber distribution hub, a second fiber distribution hub configured to couple to the first fiber distribution hub, and a mounting structure configured to aerially strand mount the fiber distribution hub are also disclosed.

Aerial optical fiber distribution hub

A cable pulling device including a clamshell housing including a first elongate clamshell and a second elongate clamshell configured to engage the first elongate clamshell such that the clamshell housing can house a distal end piece disposed at a distal end of a cable. The device can include a cord extending from a first end to a second end, wherein the first end and the second end being configured to extend through a bifurcate aperture disposed at a distal end of the distal end piece to form a loop. The cable pulling device can include a locking ring configured to surround and hold together the first elongate clamshell and the second elongate clamshell.

Small form factor flatdrop pulling bullet

A sealed terminal has a housing, a splice tray, and a faceplate. The housing has an interior compartment and a first perimeter flange defining an opening into the interior compartment. The splice tray is positioned in the interior compartment and is configured to support a module or a cartridge. The faceplate has a plurality of ports and a second perimeter flange extending at a perimeter edge of the faceplate. The sealed terminal also has at least one connection bracket and a gasket for connecting the housing and the faceplate to each other. The connection bracket has a slot receiving the first perimeter flange and the second flange in an abutting position. The gasket is positioned between the first perimeter flange and the second perimeter flange and configured to seal any gap therebetween.

Gasket for a sealed optical fiber terminal

A modular pedestal distribution hub includes a pedestal and a cover attaching to and covering a portion of the pedestal. The pedestal includes a first pedestal section and a second pedestal section. Each of the first pedestal section and the second pedestal section are configured to be attached to form the pedestal. The cover includes a front cover and a back panel. The front cover and the back panel are configured to be attached to form the cover.

Modular pedestal distribution hub

A flexible cable mounting system has one or more brackets. The flexible cable mounting system has an elongated surface affixed to the one or more brackets and configured to guide one or more cables generally parallel along the elongated surface. The elongated surface has a first portion having a generally linear profile. The elongated surface has a second portion having a generally linear profile. The elongated surface has a third portion disposed between the first portion and the second portion. The third portion is flexibly configured to vary an angle formed between the first portion relative to the second portion.

Flexible cable mounting systems

A sealed terminal has a housing, a cover, a splice tray, an adapter plate, and a splice chip. The cover is connected to the housing to close an interior compartment and has input ports for receiving one or more cables and an output adapter module having a plurality of distribution ports. The splice tray is positioned in the interior compartment and has one or more cable retainers configured to route the one or more cables within the interior compartment. The adapter plate is connected to the splice tray and has a plurality of adapters for connecting the one or more cables to the distribution ports. The splice chip is connected to the splice tray and has a plurality of slots for receiving and routing the one or more cables. The housing includes a radiused wall for routing the cables within the interior compartment without bending the cables.

Sealed optical fiber terminal

A connector pack for an optical fiber enclosure has a plurality of connector slots each for receiving a respective connector on a cable. The connector pack has a first set of connector slots on a first side of a connector pack body and a second set of connector slots on a second side of the connector pack body. The first set of connector slots and the second set of connector slots each include a latch opening for receiving a latch of a respective connector. The latch opening of the first set of connector slots is offset with respect to the latch opening of the second set of connectors. According to some embodiments, the latch opening of the first set of connector slots is inverted with respect to the latch opening of the second set of connector slots.

Connector pack for an optical fiber enclosure

A connector box has a housing forming a space and a cover configured to provide access to the space, a plurality of connectors configured to enable selective connection of fiber optic cables within the enclosed space, and a drop cable entrance assembly configured to provide an opening for one or more drop cables to enter the space in the housing. The drop cable entrance assembly has a housing opening portion providing access to the space from an exterior of the housing and having a removable plate and a grommet, and a cable clamp portion configured to hold the one or more drop cables in place via contact pressure.

Mountable connector box for fiber optic cables

A latchless adapter comprising an adapter frame, a ferrule positioning portion, and a spring clip located on an exterior of the adapter frame and configured to couple the latchless adapter to an external frame. The ferrule positioning portion may separate the interior of the latchless adapter into two compartments configured to receive respective connectors.

Optical fiber distribution cabinet

An optical fiber distribution cabinet comprising a housing having a front opening for accessing an interior of the cabinet, a high density distribution field including a bulkhead having a plurality of faceplates configured to receive a plurality of high density adapters, and a staging area configured to receive a staging plate including a frame having a plurality of pins configured to couple to latchless adapters.

Fiber distribution systems, terminals and tap boxes that provide a reconfigurable and expandable system of hardened connections. A terminal may include at least one feeder port and a plurality of distribution ports, each of the at least one feeder port and the plurality of distribution ports being sealable ports configured to receive one of a duct and a connector, where the connector is configured to interface with a drop type cable. The terminal may include an expandable module configured to receive a splitter and a tap box having at least one sealable port configured to receive one of a duct or a connector. The tap box can include at least one fiber storage. The terminal may be configured to receive a fiber through the feeder port and to output a plurality of fibers through the plurality of distribution ports, at least one fiber of the plurality of fibers being received by a tap box mounted at a user location, through at least one sealed port, the tap box further comprising at least one slack fiber storage. Tap boxes may be configured to support different types of drop cables and connectors.

Growing community of inventors

Princeton, MN, United States of America

Randy T VanHorn