Fastener bracket for cable retention device

Abstract

FASTENER BRACKET FOR CABLE RETENTION DEVICE A cable retention device includes a bottom portion, a first side portion connected to the bottom portion, and a second side portion pivotally connected to the bottom portion. The first side portion has a first opening for receiving a fastener shank. The second side portion has a second opening for receiving a fastener shank. The bottom portion, first side portion, and second side portion are configured to receive one or more cables. The first side portion and second side portion are configured to apply a clamping force to at least one of the cables. A bracket is connected to the first side portion. The bracket has a bracket interior. A nut is positioned inside of the bracket interior and configured to be aligned with the first opening and the second opening to threadably engage the shank.

Description

FASTENER BRACKET FOR CABLE RETENTION DEVICERELATED APPLICATION(S)[OOO1] This application claims priority to U.S. Provisional Application No. 63 / 707,450, filed October 15, 2025, the contents of which are hereby incorporated by reference in their entirety.FIELD

[0002] The present disclosure relates generally to a retention member for cables.BACKGROUND

[0003] Cable retainers, for example brackets and straps can be used to retain different types of cables in different installations. In power system installations, various retainers can be used to hold runs of power cables along support structures, such as cable trays, rails, or ladders. Various retainers can also be used to hold data cables along similar structures.

[0004] Cable cleats are essential components in electrical installations, designed to secure and manage cables effectively. They ensure the safety and longevity of both the cables and the overall electrical system. The primary function of cable cleats is to provide support and restraint for cables, particularly in scenarios where the cables are subjected to mechanical stress, short circuit forces, or other environmental factors.

[0005] One example of such a retainer is a cable cleat. Cable cleats are used to maintain the stability and integrity of cable installations. They are used to fix cables to support structures, prevent excessive movement, and ensure that the cables remain in their intended positions. This is particularly important in high-voltage and heavy-dutyapplications, where the forces exerted on cables can be substantial. By securing the cables, cable cleats help to prevent damage, reduce the risk of electrical faults, and enhance the overall reliability of the electrical system.

[0006] Cable cleats are available in various designs and materials to suit different applications and environments. Some examples include single cable cleats designed to secure individual cables. They are often used in applications where cables are installed in a straight line and require individual support. Cable cleats can be used to secure any number of cables, with single, double, trefoil, or quad runs being common. Trefoil cable cleats are designed for three-phase systems where three cables are bundled together in a trefoil (triangular) formation. Quad formations add a neural cable along with the three phase cables. Cable cleats provide uniform support and help to manage the electromagnetic forces generated during short circuits. Multicore cable cleats are used for securing multicore cables, which contain multiple conductors within a single outer sheath. These cleats can provide support along the entire length of the cable.

[0007] Cable cleats are manufactured from various materials, each offering distinct advantages based on the application requirements. Common materials include metal and plastic. Metal cleats, often made from stainless steel or aluminum, offer high mechanical strength and durability. They are suitable for harsh environments and applications requiring high load-bearing capacity. Plastic cleats, typically made from nylon or polypropylene, are lightweight, corrosion-resistant, and non-conductive. They are ideal for use in less demanding environments and where electrical insulation is important.SUMMARY

[0008] In certain configurations, a cable retention device includes a fastener bracket for retaining a portion of a fastener.

[0009] In certain configurations, a cable retention device includes a fastener bracket configured to retain a nut of a fastener.

[0010] In certain configurations, a cable retention device includes a bottom portion, a first side portion connected to the bottom portion, and a second side portion pivotally connected to the bottom portion. The first side portion has a first opening for receiving a fastener shank. The second side portion has a second opening for receiving a fastener shank. The bottom portion, first side portion, and second side portion are configured to receive one or more cables. The first side portion and second side portion are configured to apply a clamping force to at least one of the cables. A bracket is connected to the first side portion. The bracket has a bracket interior. A nut is positioned inside of the bracket interior and configured to be aligned with the first opening and the second opening to threadably engage the shank.

[0011] In certain configurations, a bracket for retaining a fastener for a cable retention device includes a base having a portion extending in a first plane. A first arm extends from the base. The first arm extends in a second plane substantially parallel to the first plane. A second arm extends from the base. The second arm extends substantially in the second plane. A first tine extends from the first arm. A second tine extends from the second arm opposite the first tine. A third tine extends from the first arm. A fourth tine extends from the second arm opposite the third tine. The base, firstarm, and second arm at least partially define an interior configured to receive a nut positioned between the base and the first and second arms. The first and second tines are configured to engage a first side of the nut positioned in the interior. The third and fourth tines are configured to engage a second side of the nut opposite the first side.

[0012] In certain configurations, a cable retention device includes a flange extending in a first plane and having an opening. A first sidewall extends from the flange. A second sidewall extends from the flange. A first ledge extends from the first sidewall. A second ledge extends from the second sidewall. A third sidewall extends from the first ledge. A fourth sidewall extends from the second ledge. A first leg extends from the third sidewall. A second leg extends from the fourth sidewall. The flange, first sidewall, and second sidewall at least partially define an interior configured to receive a head of a nut. The first ledge, second ledge, third sidewall, and fourth sidewall at least partially define an interior configured to receive a flange of the nut.

[0013] In certain configurations, a bracket for retaining a fastener for a cable retention device includes a flange extending in a first plane and having an opening. A first sidewall extends from the flange. The first sidewall and the flange at least partially define a first interior region configured to receive and retain a nut. At least one tine extends in front of the first interior region. The at least one tine is configured to engage a head of the nut to retain the nut within the bracket. A first ledge extends away from the sidewall. A leg extends away from the first ledge. The leg is configured to engage a cable retention device. When the leg is engaged with a cable retention device, the opening in the flange is configured to align with an opening in the cable retentiondevice to insert a fastener extending through a portion of the cable retention device and into the nut.BRIEF DESCRIPTION OF THE DRAWINGS

[0014] The following drawings depict exemplary configurations and implementations of the inventive concepts of the disclosure.

[0015] FIG. i is a top perspective view of a fastener bracket for a cable retention device.

[0016] FIG. 2 is a bottom perspective view of FIG. 1.

[0017] FIG. 3 is a top view of FIG. 1.

[0018] FIG. 4 is a front view of FIG. 1.

[0019] FIG. 5 is a top perspective view of the fastener bracket with a captured nut.

[0020] FIG. 6 is a top perspective view of the fastener bracket connected to a cable cleat.

[0021] FIG. 7 is a top perspective view of another fastener bracket for a cable retention device.

[0022] FIG. 8 is a bottom perspective view of FIG. 7.

[0023] FIG. 9 is a front view of FIG. 7.

[0024] FIG. 10 is a side view of FIG. 7.

[0025] FIG. 11 is a top perspective view of the fastener bracket of FIG. 7 retaining a nut.

[0026] FIG. 12 is a top perspective view of another fastener bracket for a cable retention device.

[0027] FIG. 13 is a bottom perspective view of FIG. 12.

[0028] FIG. 14 is a front view of FIG. 12.

[0029] FIG. 15 is a side view of FIG. 12.

[0030] FIG. 16 is a top perspective view of another fastener bracket for a cable retention device.

[0031] FIG. 17 is a bottom perspective view of FIG. 16.

[0032] FIG. 18 is a front view of FIG. 16.

[0033] FIG. 19 is a side view of FIG. 16.

[0034] FIG. 20 is a top perspective view of another fastener bracket for a cable retention device.

[0035] FIG. 21 is a bottom perspective view of FIG. 20.

[0036] FIG. 22 is a front view of FIG. 20.

[0037] FIG. 23 is a side view of FIG. 20.

[0038] FIG. 24 is a top perspective view of another fastener bracket for a cable retention device.

[0039] FIG. 25 is a bottom perspective view of FIG. 24.

[0040] FIG. 26 is a front view of FIG. 24.

[0041] FIG. 27 is a side view of FIG. 24.DETAILED DESCRIPTION OF EXEMPLARY EMBODIMENTS

[0042] Certain implementations are directed to a cable cleat that can be used to support a cable on a support structure. In certain uses, the cable is a power (e.g.,electrical, etc.) cable or a data cable (e.g., electrical, optic, etc.) and the structure can be a rail, ladder, or cable system. In certain configurations, the cable cleat can include a bracket for retaining at least a portion of a fastener used to secure portions of the cable cleat and provide a clamping force to one or more retained cables.

[0043] The installation and testing requirements for cable cleats can follow the standards set forth in IEC 61914. In certain installations, multiple cable cleats are used to support a run of cables. When installing multiple cable cleats, it can be difficult and time consuming to align and secure the cables retained by the cable cleats.

[0044] FIG. 1 shows an exemplary configuration of a fastener bracket 100 that can be used to increase the consistency and efficiency of cable cleat installation. The bracket 100 includes a base 102. The base 102 can include a substantially planar portion, extending in a first plane. The base 102 can include an aperture 104 configured to receive a first portion of a fastener, for example a shank of a bolt or screw. The aperture 104 can be defined by a raised rim 106 extending above the first plane.

[0045] A first arm 108 extends from the base 102. The first arm 108 is connected to the base 102 by a first curved transition no. The first arm 108 can include a substantially planar portion that extends in a second plane. In certain configurations the second plane can be substantially perpendicular to the first plane. In some configurations the planes can be intersecting given manufacturing tolerances.

[0046] A second arm 112 extends from the base 102 opposite the first arm 108. The second arm 112 is connected to the base 1102 by a second curved transition 114. The second arm 112 can include a substantially planar portion that extends substantially in the second plane. The second arm 112 can therefore be substantially parallel withthe fist arm 108. In other configurations the first arm 108 and the second arm 112 can be offset from one another.

[0047] The base 102, first arm 108, and second arm 112 at least partially define an interior for receiving a second portion of a fastener. In certain configurations the second portion of the fastener can be a nut configured to mate with the shank of the fastener extending through the aperture 104. The second portion of the fastener can be slidably received by the interior. In certain implementations, the second portion of the fastener can be slidably engaged with the interior and aligned with the aperture 104 by a user.

[0048] A first set of opposing tines 116 can extend from the first arm 108 and second arm 112. The first set of tines 116 can be positioned adjacent a first outer edge and can have a substantially triangular configuration. The first set of tines 116 can extend at an oblique angle relative to the first and second arms 108, 112. For example, the first set of tines 116 can extend between the first plane and the second plane.

[0049] A second set of opposing tines 118 can extend from the first and second arms 108, 112. The second set of tines 118 can be positioned adjacent a second outer edge and can have a substantially rectangular configuration. The second set of tines 118 can be moved by a user from a first position extending away from the first and second arms 108, 112 to a second position more aligned with the first and second arms 108, 112. For example, the initial position can extend substantially perpendicular to the second plane and the final position can be more aligned with the second plane. In certain configurations a user can bend the second set of tines 118 substantially parallel to thesecond plane. In some configurations the user can bend the second set of tines 118 past the second plane.

[0050] A third set of opposing tines 120 can extend from the first and second arms 108, 112. The third set of tines 120 can be positioned between the first set of tines 116 and the second set of tines 118 and can have a substantially rectangular configuration. The third set of tines 120 can be moved by a user from a first position extending away from the first and second arms 108, 112 to a second position more aligned with the first and second arms 108, 112. For example, the initial position can extend substantially perpendicular to the second plane and the final position can be more aligned with the second plane.

[0051] FIG. 5 shows an exemplary configuration of a nut 200 positioned in the interior. The nut 200 includes a lower flange 202, a hexagonal head 204, and a threaded opening 206. When inserted, the nut 200 can be slidably positioned into the interior, with the flange 202 positioned below the first and second arms 108, 112. The nut 200 can be inserted from the second edge toward the first edge, with the first set of tines 116 acting as a stop to engage a portion of the nut 200. The nut 200 can be positioned so that the threaded opening 206 is substantially aligned with the aperture 104 in the base 102. After the nut is inserted, the second set of tines can be bent to keep the nut in the interior. The third set of tines can also be bent or peened against the nut to help prevent rotation of the nut if necessary.

[0052] FIG. 6 shows an example of the bracket 100 connected to a cable cleat 300. The cable cleat 300 retains a set of cables 302, for example a trefoil cable configuration. The cable cleat 300 includes a bottom portion 304, first side portion306, and a second side portion 308, each of the side portions 306, 308 have an aperture for receiving a fastener shank 200. The bracket 100 can be slidably engaged with one of the side portions so that the side portion enters the interior with the nut 200. The fastener shank 220 can then be inserted through the side portions 306, 308 and threadably engaged with the nut 200 in the bracket 100. By capturing the nut 200 in the bracket 100 prior to installation, a user can install a plurality of cable cleats 300 more efficiently, without having to keep track of loose nuts 200 during the installation.

[0053] FIGS. 7-10 show another exemplary configuration of a bracket 400 used to increase the consistency and efficiency of cable cleat installation. The bracket 400 is configured to receive one or more portions of a fastener. For example, the bracket 400 can have an interior that receives the nut 200.

[0054] The bracket 400 includes a central flange 402 having an opening for receiving a portion of a fastener, for example a threaded bolt configured to mate with the nut 200.

[0055] A first set of sidewalls 404 extend from the flange 402. The sidewalls 404 can extend down from the flange 402, for example substantially perpendicular to the flange 402. A curved transition can connect the sidewalls 404 with the flange 402.

[0056] A tine 406 can extend from each of the sidewalls 404 to form a set of opposing tines 406. The tines 406 can be bendable by a user during installation or be bent prior to installation.

[0057] A ledge 408 extends from each of the sidewalls 404. The ledge 408 can extend outwardly relative to the sidewall 404, for example extending substantiallyperpendicular to the sidewall 404. A curved transition can connect the ledges 408 with the sidewalls 404.

[0058] A second sidewall 410 extends from each of the ledges 408. The second sidewalls 410 can extend down from the ledges 408, for example substantially perpendicular to the ledges 408. A curved transition can connect the second sidewalls 410 with the ledges 408.

[0059] A leg 412 extends from each of the second sidewalls 410. A curved transition can connect the legs 412 with the second sidewalls 410. The legs 412 can extend substantially perpendicular to the second sidewalls 410 and back along at least a portion of the width of the second sidewalls 410. In the illustrated configuration, the leg has a distal portion with a curved outer surface. This curved outer surface can be configured to connect to a curved outer surface on a cable retention device, such as a cable cleat. In other configurations, the legs 412 can extend substantially along the same plane.

[0060] As best shown in FIG. 11, the bracket 400 is configured to receive a nut 200 in an interior defined by the bracket 400. The flange 402, first sidewalls 404, and tines 406 at least partially define a first interior to receive the head 204 of the nut. The tines 406 can engage the head 204 to help retain the nut 200 inside of the bracket 400. The ledges 408 and second sidewalls 408 can at least partially define a second interior, wider than the first interior, for receiving the lower flange 202 of the nut 200.

[0061] The bracket 400 can be connected to a cable retention device prior to installation of the device and connection of the cable. For example, the bracket 400 can be attached to a side portion of a cable cleat. The legs 412 can be connected usinga fastener, such as a bolt or rivet, or the legs can be connected using a joining process such as welding or soldering, or they can remain unsecured to the cleat. In certain configurations, the bracket 400 can be integrally formed, such as thorough stamping or molding with the cable cleat.

[0062] When connected to a cable cleat, an edge of the bracket 400, opposite the tines 406, forms an opening for receiving the nut 200 which can be dropped into the bracket 400 and retained by the tines 406. The first sidewalls 404 can be configured to engage the nut 200 to help limit rotation of the nut 200 relative to the bracket 400. The opening in the flange 402 can be aligned with the threaded opening in the nut so that a fastener, such as a bolt can be passed through the bracket 400.

[0063] FIGS. 12-15 show another exemplary configuration of a bracket 500 used to increase the consistency and efficiency of cable cleat installation. The bracket 500 is configured to receive one or more portions of a fastener. For example, the bracket 500 can have an interior that receives the nut 200.

[0064] The bracket 500 includes a central flange 502 having an opening for receiving a portion of a fastener, for example a threaded bolt configured to mate with the nut 200.

[0065] A first set of sidewalls 504 extend from the flange 502. The sidewalls 504 can extend down from the flange 502, for example substantially perpendicular to the flange 502. A curved transition can connect the sidewalls 504 with the flange 502.

[0066] A tine 506 can extend downwardly from a side of the flange 502. The tine 506 can be bendable by a user during installation or be bent prior to installation.

[0067] A ledge 508 extends from each of the sidewalls 504. The ledge 508 can extend outwardly relative to the sidewall 504, for example extending substantially perpendicular to the sidewall 504. A curved transition can connect the ledges 508 with the flange 502.

[0068] A second sidewall 510 extends from each of the ledges 508. The second sidewalls 510 can extend down from the ledges 508, for example substantially perpendicular to the ledges 508. A curved transition can connect the second sidewalls 510 with the ledges 508.

[0069] A leg 512 extends from each of the second sidewalls 510. The legs 512 can extend substantially perpendicular to the second sidewalls 510. The legs 512 can have a planar configuration as shown or can be configured to have a curved portion. A curved transition can connect the legs 512 with the second sidewalls 510.

[0070] The bracket 500 is configured to receive a nut 200 in an interior defined by the bracket 500. The flange 502, first sidewalls 504, and tine 506 at least partially define a first interior to receive the head 204 of the nut. The tine 506 can engage the head 204 to help retain the nut 200 inside of the bracket 500. The ledges 508 and second sidewalls 508 can at least partially define a second interior, wider than the first interior, for receiving the lower flange 202 of the nut 200.

[0071] The bracket 500 can be connected to a cable retention device prior to installation of the device and connection of the cable. For example, the bracket 500 can be attached to a side portion of a cable cleat. The legs 512 can be connected using a fastener, such as a bolt or rivet, or the legs can be connected using a joining process such as welding or soldering, or they can remain unsecured to the cleat. In certainconfigurations, the bracket 500 can be integrally formed, such as thorough stamping or molding with the cable cleat.

[0072] When connected to a cable cleat, an edge of the bracket 500, opposite the tine 506, forms an opening for receiving the nut 200 which can be dropped into the bracket 500 and retained by the tines 506. The first sidewalls 504 can be configured to engage the nut 200 to help limit rotation of the nut 200 relative to the bracket 500. The opening in the flange 502 can be aligned with the threaded opening in the nut so that a fastener, such as a bolt can be passed through the bracket 500.

[0073] FIGS. 16-19 show another exemplary configuration of a bracket 600 used to increase the consistency and efficiency of cable cleat installation. The bracket 600 is configured to receive one or more portions of a fastener. For example, the bracket 600 can have an interior that receives the nut 200.

[0074] The bracket 600 includes a central flange 602 having an opening for receiving a portion of a fastener, for example a threaded bolt configured to mate with the nut 200.

[0075] A first set of sidewalls 604 extend from the flange 602. The sidewalls 604 can extend down from the flange 602, for example substantially perpendicular to the flange 602. A curved transition can connect the sidewalls 604 with the flange 602.

[0076] A tine 606 can extend from each of the sidewalls 604 to form a set of opposing tines 606. The tines 606 can be bendable by a user during installation or be bent prior to installation.

[0077] A ledge 608 extends from each of the sidewalls 604. The ledge 708 can extend outwardly relative to the sidewall 604, for example extending at an obliqueangle to the sidewall 604. A curved transition can connect the ledges 608 with the sidewalls 604.

[0078] A leg 612 extends from each of the ledges 608. A curved transition can connect the legs 612 with the ledges 608. The legs 612 can extend substantially perpendicular to the first sidewalls 604 and at an oblique angle to the ledges 608.

[0079] The bracket 600 is configured to receive a nut 200 in an interior defined by the bracket 600. The flange 602, first sidewalls 604, and tines 606 at least partially define a first interior to receive the head 204 of the nut. The tines 606 can engage the head 204 to help retain the nut 200 inside of the bracket 600. The ledges 608 can at least partially define a second interior, wider than the first interior, for receiving the lower flange 202 of the nut 200.

[0080] The bracket 600 can be connected to a cable retention device prior to installation of the device and connection of the cable. For example, the bracket 600 can be attached to a side portion of a cable cleat. The legs 612 can be connected using a fastener, such as a bolt or rivet, or the legs can be connected using a joining process such as welding or soldering, or they can remain unsecured to the cleat. In certain configurations, the bracket 600 can be integrally formed, such as thorough stamping or molding with the cable cleat.

[0081] When connected to a cable cleat, an edge of the bracket 600, opposite the tines 606, forms an opening for receiving the nut 200 which can be dropped into the bracket 600 and retained by the tines 606. The first sidewalls 604 can be configured to engage the nut 200 to help limit rotation of the nut 200 relative to the bracket 600.The opening in the flange 602 can be aligned with the threaded opening in the nut so that a fastener, such as a bolt can be passed through the bracket 600.

[0082] FIGS. 20-23 show another exemplary configuration of a bracket 700 used to increase the consistency and efficiency of cable cleat installation. The bracket 700 is configured to receive one or more portions of a fastener. For example, the bracket 700 can have an interior that receives the nut 200.

[0083] The bracket 700 includes a central flange 702 having an opening for receiving a portion of a fastener, for example a threaded bolt configured to mate with the nut 200.

[0084] A first set of sidewalls 704 extend from the flange 702. The sidewalls 704 can extend down from the flange 702, for example substantially perpendicular to the flange 702. A curved transition can connect the sidewalls 704 with the flange 702.

[0085] A tine 706 can extend from each of the sidewalls 704 to form a set of opposing tines 706. The tines 706 can be bendable by a user during installation or be bent prior to installation.

[0086] A ledge 708 extends from each of the sidewalls 704. The ledge 708 can extend outwardly relative to the sidewall 704, for example extending at an oblique angle to the sidewall 704. A curved transition can connect the ledges 708 with the sidewalls 704.

[0087] A leg 712 extends from each of the ledges 708. A curved transition can connect the legs 712 with the ledges 708. The legs 712 can extend substantially perpendicular to the first sidewalls 704 and at an oblique angle to the ledges 708.

[0088] In certain configurations, the legs can include an upper wall 714 and a lower wall 716. The upper wall 714 and the lower wall 716 can be connected by a curved transition. The upper wall 714 and the lower wall 716 can be formed through a fold in the material and can provide more spacing and support for the legs 712.

[0089] The bracket 700 is configured to receive a nut 200 in an interior defined by the bracket 700. The flange 702, first sidewalls 704, and tines 706 at least partially define a first interior to receive the head 204 of the nut. The tines 706 can engage the head 204 to help retain the nut 200 inside of the bracket 700. The ledges 708 can at least partially define a second interior, wider than the first interior, for receiving the lower flange 202 of the nut 200.

[0090] The bracket 700 can be connected to a cable retention device prior to installation of the device and connection of the cable. For example, the bracket 700 can be attached to a side portion of a cable cleat. The legs 712 can be connected using a fastener, such as a bolt or rivet, or the legs can be connected using a joining process such as welding or soldering, or they can remain unsecured to the cleat. In certain configurations, the bracket 700 can be integrally formed, such as thorough stamping or molding with the cable cleat.

[0091] When connected to a cable cleat, an edge of the bracket 700, opposite the tines 706, forms an opening for receiving the nut 200 which can be dropped into the bracket 700 and retained by the tines 706. The first sidewalls 704 can be configured to engage the nut 200 to help limit rotation of the nut 200 relative to the bracket 700. The opening in the flange 702 can be aligned with the threaded opening in the nut so that a fastener, such as a bolt can be passed through the bracket 700.

[0092] FIGS. 24-27 show another exemplary configuration of a bracket 800 used to increase the consistency and efficiency of cable cleat installation. The bracket 800 is configured to receive one or more portions of a fastener. For example, the bracket 800 can have an interior that receives the nut 200.

[0093] The bracket 800 includes a central flange 802 having an opening for receiving a portion of a fastener, for example a threaded bolt configured to mate with the nut 200.

[0094] A first set of sidewalls 804 extend from the flange 802. The sidewalls 804 can extend down from the flange 802, for example substantially perpendicular to the flange 802. A curved transition can connect the sidewalls 804 with the flange 802.

[0095] A tine 806 can extend from each of the sidewalls 804 to form a set of opposing tines 806. The tines 806 can be bendable by a user during installation or be bent prior to installation.

[0096] A ledge 808 extends from each of the sidewalls 804. The ledge 808 can extend outwardly relative to the sidewall 804, for example extending substantially perpendicular to the sidewall 804. A curved transition can connect the ledges 808 with the sidewalls 804.

[0097] A second sidewall 810 extends from each of the ledges 808. The second sidewalls 810 can extend down from the ledges 808, for example substantially perpendicular to the ledges 808. A curved transition can connect the second sidewalls 410 with the ledges 808.

[0098] A leg 812 extends from each of the second sidewalls 810. A curved transition can connect the legs 812 with the second sidewalls 810. The legs 812 can extendsubstantially perpendicular to the second sidewalls 810 and back along at least a portion of the width of the second sidewalls 810.

[0099] In certain configurations the second sidewalls 810 and the legs 812 can extend along only a portion of the body of the bracket 800, for example half or less the depth of the flange 802. The second sidewall 810 and leg 812 on the first side of the bracket 800 can be offset from the second sidewall 810 and leg 812 on the other side of the bracket 800. For example one of the side walls 810 and respective legs 810 can be positioned closer to the flanges 806 than the other. In certain configurations, a portion of the ledges 808 can also be offset.

[0100] The bracket 800 is configured to receive a nut 200 in an interior defined by the bracket 800. The flange 802, first sidewalls 804, and tines 806 at least partially define a first interior to receive the head 204 of the nut 200. The tines 806 can engage the head 204 to help retain the nut 200 inside of the bracket 800. The ledges 808 and second sidewalls 808 can at least partially define a second interior, wider than the first interior, for receiving the lower flange 202 of the nut 200.

[0101] The bracket 800 can be connected to a cable retention device prior to installation of the device and connection of the cable. For example, the bracket 800 can be attached to a side portion of a cable cleat. The legs 812 can be connected using a fastener, such as a bolt or rivet, or the legs can be connected using a joining process such as welding or soldering, or they can remain unsecured to the cleat. In certain configurations, the bracket 800 can be integrally formed, such as thorough stamping or molding with the cable cleat.

[0102] When connected to a cable cleat, an edge of the bracket 800, opposite the tines 806, forms an opening for receiving the nut 200 which can be dropped into the bracket 800 and retained by the tines 806. The first sidewalls 804 can be configured to engage the nut 200 to help limit rotation of the nut 200 relative to the bracket 800. The opening in the flange 802 can be aligned with the threaded opening in the nut so that a fastener, such as a bolt can be passed through the bracket 800.

[0103] The foregoing detailed description has been provided for the purpose of explaining the general principles and practical application, thereby enabling others skilled in the art to understand the disclosure for various configurations and implementations, and with various modifications as are suited to the particular uses contemplated. This description is not necessarily intended to be exhaustive or to limit the disclosure to what is disclosed. Any of the configurations and / or elements disclosed herein may be combined with one another to form various additional embodiments not specifically disclosed. Accordingly, additional configurations and implementations are possible and are intended to be encompassed within this specification and the scope of the appended claims. The specification describes specific examples to accomplish a more general goal that may be accomplished in another way.

[0104] As used in this application, the terms “front,” “rear,” “upper,” “lower,” “upwardly,” “downwardly,” and other orientational descriptors are intended to facilitate the description of the exemplary embodiments of the present disclosure, and are not intended to limit the structure of the exemplary embodiments of the present disclosure to any particular position or orientation. Terms of degree, such as“substantially” or “approximately” are understood by those of ordinary skill to refer to reasonable ranges outside of the given value, for example, general tolerances associated with manufacturing, assembly, and use of the described embodiments. Unless specified or limited otherwise, the terms “mounted,” “connected,” “supported,” and “coupled” and variations thereof are used broadly and encompass both direct and indirect mountings, connections, supports, and couplings. The words “member,” “component,” “module,” “mechanism,” “element,” “device,” and the like are not a substitute for the word “means.” As such, no claim element should be construed as a means plus function unless the element is expressly recited using the phrase “means for.

Claims

CLAIMS1. A cable retention device comprising: a bottom portion; a first side portion connected to the bottom portion, the first side portion having a first opening for receiving a fastener shank; a second side portion connected to the bottom portion, the second side portion having a second opening for receiving a fastener shank, wherein the bottom portion, first side portion, and second side portion are configured to receive one or more cables and the first side portion and second side portion are configured to apply a clamping force to at least one of the cables; a bracket connected to the first side portion, the bracket having a bracket interior; and a nut positioned inside of the bracket interior and configured to be aligned with the first opening and the second opening to threadably engage the shank.

2. The cable retention device of claim i, wherein the bracket includes a base, a first arm extending from the base, and a second arm extending from the base.

3. The cable retention device of claim 2, wherein the first arm is connected to the base by a first curved transition and the second arm is connected to the base by a second curved transition.

4. The cable retention device of claim 1, wherein the bracket includes a first set of tines configured to engage a first side of the nut.

5. The cable retention device of claim 4, wherein the bracket includes a second set of tines configured to engage a second side of the nut opposite the first side.

6. The cable retention device of claim 5, wherein the bracket includes a third set of tines positioned between the first set of tines and the second set of tines.

7. The cable retention device of claim i, wherein the bracket is slidably engaged with the first side.

8. A cable retention device comprising: a bottom portion; a first side portion connected to the bottom portion, the first side portion having a first opening for receiving a fastener shank; a second side portion connected to the bottom portion, the second side portion having a second opening for receiving a fastener shank, wherein the bottom portion, first side portion, and second side portion configured to receive one or more cables and the first side portion and second side portion are configured to apply a clamping force to at least one of the cables; a bracket connected to the first side portion, the bracket having a base, a first arm extending from the base, and a second arm extending from the base; and a nut positioned inside of the bracket between the base and the first and second arms, the nut configured to be aligned with the first opening and the second opening to threadably engage the shank.

9. The cable retention device of claim 8, wherein the first arm is connected to the base by a first curved transition and the second arm is connected to the base by a second curved transition.

10. The cable retention device of claim 8, wherein the bracket includes a first set of tines configured to engage a first side of the nut.

11. The cable retention device of claim 10, wherein the bracket includes a second set of tines configured to engage a second side of the nut opposite the first side.

12. The cable retention device of claim 11, wherein the bracket includes a third set of tines positioned between the first set of tines and the second set of tines.13- The cable retention device of claim 8, wherein the bracket is slidably engaged with the first side.

14. A bracket for retaining a fastener for a cable retention device comprising: a base having a portion extending in a first plane; a first arm extending from the base, the first arm extending in a second plane substantially parallel to the first plane; a second arm extending from the base, the second arm extending substantially in the second plane; a first tine extending from the first arm; a second tine extending from the second arm opposite the first tine; a third tine extending from the first arm; and a fourth tine extending from the second arm opposite the third tine, wherein the base, first arm, and second arm at least partially define an interior configured to receive a nut positioned between the base and the first and second arms, and wherein the first and second tines are configured to engage a first side of the nut positioned in the interior and the third and fourth tines are configured to engage a second side of the nut opposite the first side.

15. The bracket of claim 14, further comprising a fifth tine extending from the first arm and a sixth tine extending from the second arm opposite the fifth tine.

16. The bracket of claim 14, wherein the first arm is connected to the base by a first curved transition.

17. A bracket for retaining a fastener for a cable retention device comprising: a flange extending in a first plane and having an opening;a first sidewall extending from the flange, the first sidewall and the flange at least partially defining a first interior region configured to receive and retain a nut; at least one tine extending in front of the first interior region, the at least one tine configured to engage a head of the nut to retain the nut within the bracket; a first ledge extending away from the sidewall; and a leg extending away from the first ledge, the leg configured to engage a cable retention device, wherein when the leg is engaged with a cable retention device, the opening in the flange is configured to align with an opening in the cable retention device to insert a fastener extending through a portion of the cable retention device and into the nut.

18. The bracket of claim 17, wherein the at least one tine extends from the first sidewall.

19. The bracket of claim 17, wherein the first sidewall comprises a pair of opposing sidewalls extending substantially perpendicular to the flange, and each sidewall includes a tine, the tines being positioned to oppose each other and engage the head of the nut.

20. The bracket of claim 17, wherein the leg extends from a second sidewall, and the leg has a distal portion with a curved outer surface configured to mate with a curved outer surface of the cable retention device.

21. The bracket of claim 17, wherein a second sidewall extends between the first ledge and the leg.

22. The bracket of claim 17, wherein each ledge extends outwardly from the first sidewall at an oblique angle.

23. The bracket of claim 17, wherein each leg includes an upper wall and a lower wall connected by a curved transition.

24. The bracket of claim 23, wherein the upper wall and lower wall are formed by a fold in the material of the leg.

25. The bracket of claim 17, wherein the leg is offset from a second leg extending from the flange opposite the leg.

26. A bracket for retaining a fastener for a cable retention device comprising: a flange extending in a first plane and having an opening; a first sidewall extending from the flange; a second sidewall extending from the flange; a first ledge extending from the first sidewall; a second ledge extending from the second sidewall; a third sidewall extending from the first ledge; a fourth sidewall extending from the second ledge; a first leg extending from the third sidewall; and a second leg extending from the fourth sidewall, wherein the flange, first sidewall, and second sidewall at least partially define an interior configured to receive a head of a nut, and wherein the first ledge, second ledge, third sidewall, and fourth sidewall at least partially define an interior configured to receive a flange of the nut.

27. The bracket of claim 26, wherein a tine extends into an opening to retain the nut.

28. The bracket of claim 27, wherein the tine extends from the first sidewall.

29. The bracket of claim 27, wherein the tine extends from the flange.

30. The bracket of claim 26, wherein the first leg has a curved configuration.

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