Siecor Corporation

Corning Cable Systems

Williamsrdm, Inc.

Siecor Operations, LLC

Mark D Walters

Kevin L Morgan

Robert W Dennis

Joseph K Dodd

Markus A Giebel

Mark Robert Dagley

Donnie R Clapp, Jr

John David Harvey

J D Harvey

Todd E Mitchell

Steven R Baker

A terrain sensor node system and method are provided herein. The terrain sensor node can be employed without hands on placement. Solar power is facilitated and contributes to service life and reliability. A robust housing is capable of aerial drop installation. A domed top and a rounded weighted bottom combine to form a housed sensor that is capable of righting itself after landing. A transparency in the upper housing enables the harnessing of solar power in a righted sensor. An antenna withstands aerial sensor deployment and rotates to a workable orientation without user intervention.

Terrain sensor node system and method

Compact aircraft system tester

A mixed media outlet is provided that is capable of being mounted upon a wall and that includes ports that are typically designed to provide separate access to an electrical network and to an optical network. The wall mounted outlet can therefore permit a telephone to be connected to the electrical network, and a computer to be connected to the optical network. Alternatively, the outlet can permit a telephone to also be connected to either the same or a different optical network than the computer. The mixed media outlet includes a housing adapted to be wall mounted and first and second ports that are disposed within openings defined by the housing, such as a data port and a voice port. The mixed media outlet also includes an electro-optic converter connected to the first port for converting between electrical and optical signals such that electrical signals presented at the first port are converted to corresponding optical signals for transmission to an optical network and optical signals delivered by an optical fiber are converted to electrical signals for transmission via the first port to a computer, for example. The mixed media outlet can also include a fiber port for optically interfacing the optical fiber and the electro-optic converter in order to permit optical communication therebetween. While the fiber port can be in the same plane as the data and voice ports, the fiber port can lie in a different plane in some embodiments. Further, the mixed media outlet can include a protective subhousing covering at least the electro-optic converter for protecting the electro-optic converter from electromagnetic interference.

Wall mountable mixed media outlet

Devices and methods by which fiber optic connectors, and the adapters associated with them can be installed upon mounting surfaces. A termination block is described that retains a number of adapters to receive fiber optic cable connectors for interconnection and/or cross-connection with other connectors or switching equipment. The termination block has a mounting footprint that is substantially identical to the mounting footprint of an electrical punch-down block, thus permitting ease of retrofitting. Slider panels are retained within bays in a base unit to secure adapters within the base unit. The slider panels are individually moveable so that each can be slidingly withdrawn from its bay for better access to the adapter secured therewithin. In preferred embodiments, removable markers are affixed to individual slider panels and a removable cover is provided for the termination block. Methods for mounting and retrofitting termination blocks are also described.

Termination block for optical fiber cables

A cable storage device has a reel rotatably mounted in a frame. The reel has a hub that rotates with the reel. A connector panel has a plurality of connectors for interconnecting with an end of the cable on the reel. The connector panel will fit on a reel docking station for rotation with the reel. The connector panel also fits on a frame docking station while the reel is not to be rotated. A locking member is engaged by the connector panel when the connector panel is mounted to the reel docking station to allow rotation of the reel. The locking member is biased to a locking position when the connector panel is removed from the reel docking station. A cable presence sensor locks the reel against rotation if substantially all of the cable is pulled from the reel.

Retractable cable reel

Adapter panel for an optical fiber distribution frame

An optical fiber splice housing is provided for connection to a distribution frame adjacent to the rear of an optical fiber raceway unit. The splice housing comprises a cabinet having a front end defining a cabinet height and a cabinet width and a rear end defining a rear facing opening. The front end of a cabinet is adapted for connection to a distribution frame adjacent the rear side of the raceway member, and the cabinet height is not greater than the raceway height while the cabinet width is not greater than the raceway width. The splice housing can therefore be connected to a distribution frame adjacent to the rear side of a raceway unit without using additional vertical space in the frame and access to a splice tray mounted on the splice tray shelf can be had through the rear facing opening of the cabinet.

Optical fiber splice housing

An optical fiber connector housing or facilitating the cross-connection or interconnection of optical fibers is provided having upper and lower plate members spaced apart from one another with the front edge of the lower plate member extending further forward than the front edge of the upper plate member. A connecter panel depends generally vertically downward from the front edge of the upper plate member thereby defining a shelf portion at the forward part of the lower plate member. A door is hingeably connected to the front edge of the lower plate member thereby defining a forward cable area, at least one side aperture, and at least one top aperture forward of the connector panel.

Optical fiber connector housing

Spacer for optical fiber cables

A vertical routing and storage apparatus for optical fibers is provided comprising an upright member having front and rear vertical faces, a plurality of front channel assemblies adjustably mounted to the front vertical face, and a plurality of rear channel assemblies mounted to the rear vertical face. The upright member is adapted for connection to a supporting frame member and has a plurality of vertically oriented slots formed in the front vertical face. Each front channel assembly has a vertical position which is a adjustable through a range of vertical positions corresponding to the vertical extent of one of the vertical slots. Optical fibers can be routed vertically through the front and rear channels of the routing and storage apparatus and the vertical positions and spacing of the front channel assemblies can be adjusted to advantageously correspond to the vertical positions of optical fiber source equipment adjacent to the front of the apparatus. The interior walls of the channel assemblies can be radiused to prevent the fibers from violating their minimum bending radius. Storage spools, channel assemblies providing side access to the channel, and a dust cap storage cup may also be provided to facilitate the routing and storage of optical fibers.

Routing and storage apparatus for optical fibers

A clamp assembly (10) is provided which can include first and second clamp halves (16, 18) with a base (50) mounted in each clamp path. The base has a cylindrical inner surface (54) which can clamp a cable thereto for strain relief. Alternatively, a flexible insert (86) having a plurality of cylindrical cavities (102) opening through the outer surface (100) thereof can receive a number of cables (12) to be clamped in the clamp assembly for strain relief. In another version, a plurality of nested inserts (106-116) can be provided on each base (50) allowing the selection of a particular insert dimension suitable the cable to be secured.

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Colleyville, TX, United States of America

Mark D Walters