Abstract: A modular mounting bracket includes a base member having a plurality of support members that receive an enclosure, the plurality of support members each including a plurality of slots. A plurality of latching mechanisms each including a body portion and a latching portion are positioned within the plurality of slots of the plurality of support members. The plurality of latching mechanisms are translatable between an access position and an engaged position, and the plurality of latching mechanisms engage the enclosure and secure the enclosure to the modular mounting bracket in the engaged position.

Abstract: An unmanned aerial vehicle for mounting a clamp to a line includes a body, a first propeller attached to the body, a second propeller attached to the body, and a third propeller attached to the body. The body is between at least one of the first propeller and the second propeller, the first propeller and the third propeller, or the second propeller and the third propeller. A guide is attached to the body and is configured to support the clamp for mounting to the line by flying the unmanned aerial vehicle toward the line. The guide is configured to support the clamp such that an imaginary clamp line between a first jaw of the clamp and a second jaw of the clamp when the clamp is in an arrested position is non-parallel to a plane intersecting the first propeller, the second propeller, and the third propeller.

Abstract: A breakout device for mid-span fiber separation. First and second portions that each have a hollow interior space that defines a first part of a primary interior pathway and that defines a first part of a secondary interior pathway that branches away from the primary pathway. The first and second portions together bound the primary and secondary pathways. The first and second portions together define: a first entrance orifice, a second exit orifice and a third exit orifice. The first and second portions are configured to permit in-situ placement of the device upon elongated fibers. All the fibers extend through the first entrance orifice at the entrance to the primary pathway, a first group of the fibers extend through the second exit orifice at an exit from the primary pathway, and a second group of the fibers extend through the third exit orifice at an exit from the secondary pathway.

Abstract: A vibration damper for reducing a vibration in a cable is provided. The vibration damper includes an attachment portion that is attached to the cable. The vibration damper includes a flexible leg portion attached to the attachment portion. The vibration damper includes a weighted portion attached to the flexible leg portion. The weighted portion is spaced a distance apart from the attachment portion.

Abstract: Fiber-optic equipment is often deployed in various locations, and performance of fiber-optic transmissions may be monitored as a gauge of equipment status to prevent costly and inconvenient communication outages. Events that damage equipment that eventually result in outage and may be desirable to address proactively, but the occurrence of such events may be difficult to detect only through equipment performance. Presented herein are techniques for monitoring and maintaining fiber-optic equipment performance via enclosure sensors that measure physical properties within a fiber-optic equipment enclosure, such as temperature, pressure, light, motion, vibration, and moisture, which are often diagnostic and predictive of causes of eventual communication outages, such as temperature-induced cable loss (TICL), incomplete flash-testing during installation, exposure to hazardous environmental conditions, and tampering.

Abstract: A structure for supporting a wire includes a first portion including a body portion, and an alignment portion. The alignment portion defines a first alignment opening through which the alignment portion receives a first fastener. The first alignment opening extends along a first alignment axis between. A second portion defines a second alignment opening, extending along a second alignment axis, through which the second portion receives the first fastener. The second portion is spaced a distance from the body portion to define a wire opening into which the wire is received for support by the structure. The alignment portion is movable relative to the body portion between a first position, in which the first alignment axis and the second alignment axis are coaxial, and a second position, in which the first alignment axis and the second alignment axis are non-coaxial.

Abstract: A support structure is provided for supporting a cable. The support structure includes a body portion extending circumferentially about an axis. The body portion includes a first wall, a second wall extending substantially parallel to the first wall, and a third wall coupled between the first wall and the second wall. The first wall, the second wall, and the third wall define an opening extending along a circumferential length of the body portion. The body portion receives the cable within the opening. A retention structure is coupled to the first wall and projects from the first wall towards the second wall. The retention structure extends substantially parallel to the third wall. The retention structure retains the cable within the opening.

Abstract: A mounting assembly for mounting a solar panel to a surface includes a mounting base that is supported on the surface. The mounting base defines an elongated opening that extends along an axis. A module mount can be coupled to the mounting base. The module mount includes a first mount portion that is received within the elongated opening of the mounting base such that the module mount is movable with respect to the mounting base along the axis. A second mount portion is coupled to the solar panel for mounting the solar panel to the surface through the mounting base.

Abstract: A support device for supporting a wire includes a first support portion. A second support portion includes a first leg portion and a second leg portion that extends linearly and is attached to the first leg portion and to the first support portion. A third support portion includes a third leg portion having a third inwardly facing surface, which faces towards the third axial opening, and a third outwardly facing surface, which does not face towards the third axial opening. The third inwardly facing surface and the third outwardly facing surface have a different surface roughness. A fourth leg portion has a fourth inwardly facing surface, which faces towards the fourth axial opening, and a fourth outwardly facing surface, which does not face towards the fourth axial opening. The fourth inwardly facing surface and the fourth outwardly facing surface have a same surface roughness.

Abstract: A cover for a fiber optic cable connection includes a cap portion having a first housing portion having a first housing wall, a second housing portion having a second housing wall, and a coupler portion that couples the first housing portion and the second housing portion in a closed position. The first housing wall and the second housing wall define a housing opening. A sealing assembly is received within the housing opening and has an inner surface and an outer surface. The inner surface defines a sealing opening that receives a fiber optic cable. The outer surface contacts at least one of the first housing wall or the second housing wall when the sealing assembly is received within the housing opening. The sealing assembly creates an additional seal when the first housing wall and the second housing wall compress the sealing assembly onto a union portion.

Abstract: A line bypass system includes a support structure including a first support portion and a second support portion spaced apart from the first support portion. The support structure includes an attachment portion that attaches the first support portion to the second support portion. The first support portion and the second support portion define a first opening on a first side of the attachment portion and a second opening on a second side of the attachment portion. The first opening movably receives a first guide wire and the second opening movably receives a second guide wire.

Abstract: A vibration damper for reducing a vibration in a cable is provided. The vibration damper includes an attachment portion that is attached to the cable. The vibration damper includes a flexible leg portion attached to the attachment portion. The vibration damper includes a weighted portion attached to the flexible leg portion. The weighted portion is spaced a distance apart from the attachment portion.

Abstract: A clamping apparatus secures a photovoltaic module to a rail. The clamping apparatus includes a bolt extending between a first end and a second end of the bolt. The clamping apparatus includes a clamp defining a bolt opening into which the bolt is received and a support structure. The support structure positions the clamp at a first location on the bolt. The first location is a first distance from a top rail surface plane within which a top surface of the rail lies. The support structure is adjustable to position the clamp at a second location on the bolt. The second location is a second distance from the top rail surface plane. The first distance is different than the second distance. The support structure has a support structure thickness corresponding to a third distance that is less than the first distance and less than the second distance.

Abstract: A helical jumper connector includes a helical support member configured to support a wire. The helical support member includes a first leg having a first helical winding and a second leg having a second helical winding that defines a second axial opening. The first axial opening and the second axial opening are coaxial with the wire when the first helical winding and the second helical winding are wrapped around the wire and cooperatively engage with one another to support the wire. A jumper casting is configured to receive the helical support member. The helical support member and the jumper casting are electrically conductive such that the helical jumper connector forms an electrically conductive pathway to carry electrical current from the wire. A method of making a helical jumper connector assembly includes applying a compression force to a helical jumper connector comprising a helical support member received in a jumper casting.

Abstract: An insert for a conductor clamp has a body portion for applying a clamping force to a conductor. The insert includes an insert body receivable by the body portion of the conductor clamp. The insert body has a first surface adapted to face a portion of the conductor. The insert body is made from a non-metallic and electrically non-conductive material. An adhesive is applied to at least a portion of the first surface of the insert body. A friction enhancing material applied to at least a portion of the adhesive.

Abstract: Among other things, a spacer unit for spacing apart a bundle of cables is provided. The spacer unit comprises two or more spacer assemblies which are adjustable to provide for various sized bundle configurations and/or to provide for various degrees of spacing. Respective spacer assemblies comprise a housing apparatus and a modular frame. The housing apparatus couples to a clamping arm that clamps to a cable. The modular frame allows the spacer assembly to be coupled to other spacer assemblies to vary a configuration of a spacing unit, and is configured for selective rotation relative to the housing apparatus to facilitate altering a shape of the spacer assembly.

Abstract: A line bypass system is provided having a guide wire. The line bypass system has a support structure defining a first channel, into which a first wire portion of the guide wire is received. The support structure has a second channel, extending parallel to the first channel, into which a second wire portion of the guide wire is received. The first channel is dimensioned to facilitate engagement of a robot with the first wire portion and the second channel is dimensioned to facilitate engagement of a robot with the second wire portion as the robot traverses the support structure.

Abstract: A structure for supporting a wire includes a first portion extending along a first axis. The first portion includes a body portion and an alignment portion. The alignment portion defines a first alignment opening through which the alignment portion receives a fastener. The first alignment opening extends between a first side and a second side. The first side has a first surface portion and a second surface portion. The first surface portion is separated a first distance from the first axis. The second surface portion is separated a second distance from the first axis. The first distance is different than the second distance. The structure includes a second portion defining a second alignment opening through which the second portion receives the fastener. The second portion is spaced a distance from the body portion to define a wire opening into which the wire is received for support by the structure.

Abstract: A cover apparatus can cover an electrical insulator and an electrical conductor. The cover apparatus includes one or more leg sections for covering a portion of the electrical conductor. The cover apparatus includes a cover section coupled to the one or more leg sections and covering a portion of the electrical insulator. The cover section includes a body portion and an adjustable portion coupled to the body portion at a coupling location. The adjustable portion can be adjusted such that a dimension of the adjustable portion is adjusted according to a dimension of the electrical insulator. An example method of forming a cover apparatus for covering an electrical insulator and an electrical conductor is also provided.

Abstract: A cover apparatus is provided for covering an electrical insulator and a conductor. The cover apparatus includes a first cover portion extending along a first axis. The first cover portion includes a first segment covering a first portion of the electrical insulator and a second segment coupled to the first segment and covering a first portion of the conductor. The cover apparatus includes a second cover portion extending along a second axis. The second cover portion includes a third segment movably attached to the first segment and a fourth segment coupled to the third segment and covering a portion of the conductor. An example method of forming a cover apparatus for covering an electrical insulator and a conductor is also provided.