CROSS REFERENCE TO RELATED APPLICATION

This application claims benefit of U.S. Provisional Application Serial No.

61/601 ,813, entitled, "Wire Stringing Angle Clamp" filed February 22, 2012, the entire disclosure of which is incorporated herein by reference.

FIELD OF THE DISCLOSURE

The present disclosure is generally related to overhead transmission and distribution systems and more particularly is related to a wire stringing angle clamp used in overhead transmission and distribution systems.

BACKGROUND OF THE DISCLOSURE

Messenger wires used in overhead transmission and distribution systems need to be strung with temporary stringing devices which are replaced with permanent retention devices. Overhead conductor cables are commonly suspended from a messenger wire typically made of high strength alloys. The messenger wire is supported on poles or towers with the conductor cable spacers arranged at spaced intervals along the messenger wire to suspend one or more conductor cables. Installation of the messenger wire is a tedious and expensive process, since it conventionally requires the use of numerous different installation devices, and then an exchanging of the installation devices for permanent retention devices. For example, a utility worker installing a messenger wire will have to first install the installation devices, then string the messenger wire through the installation devices, and then go back to each of the installation devices and replace it with a permanent retention device. Additional steps such as tensioning the messenger cable with a winch or pulley, conventionally known as a come-along, may be needed as well.

The use of these many installation and permanent retention components comes at a high cost to utility companies. These costs, coupled with the expense in man hours for installation of the messenger wire adds significant costs to the operational budgets of the utility companies, which is passed along to the consumer in the form of higher utility bills. Furthermore, if a messenger wire becomes dislodged during the tensioned transfer process, the potential for accidents and injuries while installing the messenger wires and changing out temporary devices for permanent devices is significant, as messenger wires may be under high tension force.

Thus, a heretofore unaddressed need exists in the industry to address the aforementioned deficiencies and inadequacies.

SUMMARY OF THE DISCLOSURE

Embodiments of the present disclosure provide a system and method for stringing angle clamp device. Briefly described, in architecture, one embodiment of the system, among others, can be implemented as follows. The stringing angle clamp device has a pulley wheel rotatable about an axle. A connecting structure has at least a first end and a second end, wherein the first end rotatably is affixed to the axle and the second end is sized to connect to a utility pole. A first guide arm and a second guide arm are each rotatably affixed to the axle. A first wire clamping structure is affixed to the first guide arm and a second wire clamping structure is affixed to the second guide arm.

The present disclosure can also be viewed as providing a method of stringing and retaining a wire on a utility pole. In this regard, one embodiment of such a method, among others, can be broadly summarized by the following steps: connecting a stringing angle clamp device to the utility pole, the stringing angle clamp having a pulley wheel rotatable about an axle, a first guide arm and a second guide arm, each rotatably affixed to the axle, and a first wire clamping structure affixed to the first guide arm and a second wire clamping structure affixed to the second guide arm; stringing the wire between the first wire clamping structure and the second wire clamping structure, wherein a portion of the wire between first and second wire clamping structure contacts the pulley wheel; and retaining the wire with each of the first and second wire clamping structures.

The present disclosure can also be viewed as providing an apparatus for angularly retaining a wire. In this regard, one embodiment of such an apparatus, among others, may be implemented as follows. The apparatus for angularly retaining a wire has a pulley wheel rotatable about an axle. A connecting structure is connected to the axle and secures the pulley wheel a substantially stationary distance from a utility pole. A first guide arm is positioned in a first direction and a second guide arm is positioned in a second direction, wherein the second direction is between 90° and 175° from the first direction. A first wire clamping structure is affixed to the first guide arm and a second wire clamping structure is affixed to the second guide arm, wherein the wire is forcibly retained by the first and second wire clamping structures.

Other systems, methods, features, and advantages of the present disclosure will be or become apparent to one with skill in the art upon examination of the following drawings and detailed description. It is intended that all such additional systems, methods, features, and advantages be included within this description, be within the scope of the present disclosure, and be protected by the accompanying claims.

BRIEF DESCRIPTION OF THE DRAWINGS

Many aspects of the disclosure can be better understood with reference to the following drawings. The components in the drawings are not necessarily to scale, emphasis instead being placed upon clearly illustrating the principles of the present disclosure. Moreover, in the drawings, like reference numerals designate corresponding parts throughout the several views.

FIG. 1 is a top view illustration of a stringing angle clamp device, in accordance with a first exemplary embodiment of the present disclosure.

FIG. 2 is a cross-sectional illustration of the stringing angle clamp device of FIG. 1, in accordance with the first exemplary embodiment of the present disclosure.

FIG. 3 is a cross-sectional illustration of a stringing angle clamp device, in accordance with a second exemplary embodiment of the present disclosure.

FIG. 4 is a top view illustration of the pulley wheel and axle of the stringing angle clamp device of FIG. 3, in accordance with the second exemplary embodiment of the present disclosure.

FIG. 5 is an exploded side view illustration of the connecting structure of a stringing angle clamp device, in accordance with a third exemplary embodiment of the present disclosure.

FIG. 6 is a side view illustration of a stringing angle clamp device, in accordance with a fourth exemplary embodiment of the present disclosure.

FIG. 7 is a top view illustration of a stringing angle clamp device, in accordance with the fourth exemplary embodiment of the present disclosure.

FIG. 8 is a top view illustration of two stringing angle clamp devices, in accordance with a fifth exemplary embodiment of the present disclosure. FIG. 9 is a flowchart illustrating a method of stringing and retaining a wire on a utility pole in accordance with the first exemplary embodiment of the disclosure.

DETAILED DESCRIPTION

FIG. 1 is a top view illustration of a stringing angle clamp device 10, in accordance with a first exemplary embodiment of the present disclosure. The stringing angle clamp device 10, which may be referred to herein simply as 'device 10' includes a pulley wheel 20 rotatable about an axle 22. A connecting structure 30 has at least a first end 32 and a second end 34, wherein the first end 32 is rotatably affixed to the axle 22 and the second end 34 is sized to connect to a utility pole 6. A first guide arm 40 and a second guide arm 42 are each rotatably affixed to the axle 22. A first messenger wire clamping structure 50 is affixed to the first guide arm 40 and a second messenger wire clamping structure 52 is affixed to the second guide arm 42.

As is shown in FIG. 1 , the device 10 is used with stringing and retaining a messenger wire 8 commonly used with utility transmission, distribution, or conducting cables. The messenger wire 8, which may also be known in the industry as a messenger cable or a catenary, is a durable wire structure that is used to support cable, such as a conductor cable or transmission and distribution cables. Commonly, the cables are suspended or affixed to the messenger wire 8 and the messenger wire 8 is retained between utility poles 6, utility towers and other structures, such as buildings or other infrastructure, where the messenger wire 8 is arranged at intervals to suspend one or more conductor cables. The messenger wire 8 may be constructed from many different materials, or combinations there, but may commonly be constructed from high strength steel wire, other high strength alloys, or a similar material that has high strength characteristics and is durable under many weather conditions. Although the messenger wire 8 is often distinct and separate from a cable, it may be formed as an integral part of the cable. In accordance with this disclosure, the wire 8 may include any type of wire, self-supporting or used to support another cable.

The device 10 may be used during both the installation of the messenger wire 8 and to retain the messenger wire 8 in an installed position for an indefinite period of time, such as for the months or years the conductor cable may be in place. Conventional systems include those used to string messenger wires 8 and those used to retain the messenger wire 8 in place for the indefinite period of time. However, since two devices are needed to complete installation, i.e., an installation device and a permanent retaining device, installing new messenger wires 8 is a costly and inefficient process. After the messenger wire 8 is strung through the conventional installation device, a utility worker must remove the installation device and replace it with a permanent retaining device. Ultimately, this increases the time and expense for installing messenger wires 8.

One of the many benefits of the device 10 disclosed herein is that it can save both time and money by allowing for faster installation of the messenger wire 8 and by retaining the messenger wire 8 in the installed position permanently. With reference to FIG. 1 and described in further detail in the additional figures, during installation of the messenger wire 8, a first end of the messenger wire 8 may be strung through the first messenger wire clamping structure 50 of the first guide arm 40. The messenger wire 8 may then be wrapped around a portion of the pulley wheel 20 and strung through the second messenger wire clamping structure 52 of the second guide arm 42. The messenger wire 8 may then be strung to any additional number of devices 10 or utility poles 6. Once the position of the messenger wire 8 is achieved, each of the first and second messenger wire clamping structures 50, 52 may be clamped or tightened to retain the messenger wire 8 in place within the device 10. The device 10 may then hold and support the messenger wire 8 for an indefinite period of time.

The device 10 may be affixed to any type of utility pole 6 or utility tower with the connecting structure 30. The connecting structure 30 may include any type of structure or device that holds the pulley wheel 20 in a position proximate to the utility pole 6. The connecting structure 30 may be affixed to the pulley wheel 20 with the axle 22 at the first end 32, and connected or fastened to the utility pole 6 on the second end 34 of the connecting structure 30. Of course, the second end 34 of the connecting structure 30 may be connected or affixed to another structure or device that is connected to the utility pole 6, such as a cross arm or other securing structure. The second end 34 of the connecting structure 30 may include a variety of designs and structures for connecting to the utility pole 6 in a number of ways. For example, as is discussed further in FIG. 5 the second end 34 may include a forked portion with a pin that connects to a metal bracket bolted to the utility pole 6.

Generally, the second end 34 of the connecting structure 30 is connected to the utility pole 6 such that it retains the pulley wheel 20 and axle 22 in a location having a substantially predetermined distance from the utility pole 6. In other words, the connecting structure 30 may be connected to the utility pole 6 with a movable connection, such as one that pivots, but the distance between the utility pole 6 and the pulley wheel 20 remains substantially constant. This may allow the device 10 to be oriented in a particular direction during installation or after installation while at the same time ensuring that the device 10 is securely connected to the utility pole 6. All designs and variations of the connecting structure 30 including those not explicitly discussed herein are considered within the scope of the present disclosure.

The pulley wheel 20 and axle 22 may be retained on the first end 32 of the connecting structure 30. The pulley wheel 20 is rotatable about the axle 22, such that it can freely rotate without substantial hindrance due to friction or other forces. For example, the axle 22 may be a bolt or other structure that is positioned within an opening at a center point of the pulley wheel 20. The first end 32 of the connecting structure 30 may have one or more holes located therein which the axle 22 can traverse through. The connection points between the first end 32 of the connecting structure 30 and the axle 22, as well as between the pulley wheel 20 and the axle 22 may all be easily movable, such that all components of the device 10 rotate about the axle 22. However, the connecting structure 30 or another component of the device 10 may be retained to the axle 22 in a non-rotatable manner, depending on design.

The first and second guide arms 40, 42 may be used to guide the messenger wire 8 and support the first and second messenger wire clamping structures 50, 52. The first and second guide arms 40, 42 may be rotatable with respect to the axle 22, such that the first and second guide arms 40, 42 can be oriented at desired angles from each other. For example, the first and second guide arms 40, 42 may commonly be used with an orientation of approximately 90° to 175° from each other, as measured from the axle 22 between a central axis parallel to an elongated length of the first and second guide arms 40, 42 (15° to 90° as measured from oppositely-positioned first and second guide arms 40, 42 that are oriented parallel from one another). This may correspond to an angle in the stringing of the conductor cable between utility poles 6 with an angle of 90° to 175° therebetween. Of course, the device 10 may be used with angles over 175° or angles less than 90°. Generally, a common messenger stringing clamp may be used for angles between 175° and 180°, and it is rare to string cable at angles less than 90°.

The first and second messenger wire clamping structures 50, 52 are positioned on the first and second guide arms 40, 42, respectively. The first and second messenger wire clamping structures 50, 52 may include any type of clamping structure or wire clamp, such as a clamp having two opposing structures that may be biased or retained proximate to one another. The first and second messenger wire clamping structures 50, 52 may have at least an open position where the messenger wire 8 can be inserted into the first and second messenger wire clamping structures 50, 52, and a closed position where the messenger wire 8 is forcibly retained within the first and second messenger wire clamping structures 50, 52. For example, the first and second messenger wire clamping structures 50, 52 may each include a fastener, such as a threaded bolt and nut, which can be used to place the first and second messenger wire clamping structures 50, 52 in the closed position. Any additional variations, components or features not explicitly disclosed herein may be included with the device 10.

FIG. 2 is a cross-sectional illustration of the stringing angle clamp device 10 of FIG. 1, in accordance with the first exemplary embodiment of the present disclosure. As is shown, the device 10 includes the pulley 20 and the axle 22 with the connecting structure 30 (FIG. 1) and the first and second guide arms 40, 42 rotatably affixed to the axle 22. Both the first and second guide arms 40, 42 and the connecting structure 30 have forked end sections where they are contacting the axle 22 (only the first end 32 of the connecting structure 30 is shown). This allows the connecting structure 30 and the first and second guide arms 40, 42 to contact and attach to the axle 22 at two points along the axle 22 with the pulley wheel 20 positioned interior to each of the contacting structure 30 and the first and second guide arms 40, 42.

When the messenger wire 8 is fully installed with the device 10, the messenger wire 8 may be strung between the first messenger wire clamping structure 50 and the second messenger wire clamping structure 52 and across the pulley wheel 20. In other words, the portion of the messenger wire 8 that is positioned between the first and second messenger wire clamping structures 50, 52 may contact a portion of the pulley wheel 20. The angle of the first and second guide arms 40, 42 may dictate how much of the pulley wheel 20 is contacted by the messenger wire 8. The first and second messenger wire clamping structures 50, 52 may retain the messenger wire 8 in a substantially stationary position, such that conductor cables and other utility lines may be suspended from it. As one having skill in the art can see, when the device 10 is used, there is no need for a utility worker to remove the device 10 and install any other structure, since the device 10 can be used permanently. The only modifications that may be made to the device 10 after the messenger wire 8 is strung, for example, is simply tightening the first and second messenger wire clamping structures 50, 52 to retain the messenger wire 8 in a secured position. FIG. 3 is a cross-sectional illustration of a stringing angle clamp device 1 10, in accordance with a second exemplary embodiment of the present disclosure. The stringing angle clamp device 110 of the second exemplary embodiment, which may be referred to herein as 'device 110,' is substantially similar to, and may include any of the components, features and characteristics of the device 10 of the first exemplary embodiment. As is shown in FIG. 3, the device 110 includes a pulley wheel 120 rotatable about an axle 122. A connecting structure 130 is rotatably affixed to the axle 122 at a first end. A second end of the connecting structure 130 is sized to connect to a utility pole 106. A first guide arm 140 and a second guide arm 142 are each rotatably affixed to the axle 122. A first messenger wire clamping structure 150 is affixed to the first guide arm 140 and a second messenger wire clamping structure 152 is affixed to the second guide arm 142.

The device 1 10 further includes at least a first braking structure 160 positioned on the first guide arm 140 and a second braking structure 162 positioned on the second guide arm 142. The first and second braking structures 160, 162 may include any type or sized structure that is positioned on the first or second guide arm 140, 142, respectively. For example, as is shown in FIG. 3, the first and second braking structures 160, 1 2 include a structure positioned between each of the first or second guide arm 140, 142, respectively and the pulley wheel 120. The first and second guide arms 140, 142 and each of the first and second braking structures 160, 162 may be movable between at least a first position where the first and second braking structures 160, 162 are not in contact with the pulley wheel 120 (as is shown in FIG. 3 with the second guide arm 142 and the second braking structure 162) and a second position where the first and second braking structures 160, 162 are in contact with the pulley wheel 120 (as is shown in FIG. 3 with the first guide arm 140 and the first braking structure 160).

The first and second braking structures 160, 162 may be used as a self-braking system within the device 1 10, which may help limit movement of the messenger wire 108 in certain scenarios. For example, when a messenger wire 108 that is strung between utility poles 106 breaks, the forces from the release of the tension within the messenger wire 108 may transfer throughout the messenger wire 108, which, when combined with the weight of the messenger wire 108 and any cable supported thereon, may result in a downed messenger wire 108. To help prevent this, the device 1 10 clamps the messenger wire 108 on either side of the pulley wheel 120 with the first and second messenger wire clamping structures 150. As the messenger wire

δ 108 breaks, the forces on either side of the device 1 10 from the messenger wire 108 will pull the messenger wire 108 along the axis of the messenger wire 108, in one direction or another depending on where the break occurs.

The first and second braking structures 160, 162 may alleviate some of the forces when the messenger wire 108 breaks by frictionally hindering the movement of the pulley wheel 120. In FIG. 3, the messenger wire 108 is illustrated as having a break 109 proximate to the first guide arm 140. The resulting force within the messenger wire 108 would pull the first guide arm 140 towards the pulley wheel 120, since the messenger wire 108 is retained on the first guide arm 140 by the first messenger wire clamping structure 150. As this happens, the first braking structure 160 may contact the pulley wheel 120, thereby applying a frictional load to the pulley wheel 120 which will hinder the rotation of the pulley wheel 120. Although this may not prevent all movement of the messenger wire 108 within the device 1 10, it may substantially reduce the movement of the messenger wire 108, which may in turn lessen any damage that is likely to occur.

The first and second braking structures 160, 162 may include many different variations to enhance or adjust the type of braking or braking force applied to the pulley wheel 120. For example, the pulley wheel 120 may have a plurality of teeth formed along the circumference of the pulley wheel 120 which the first and second braking structures 160, 162 may engage when the messenger wire 108 breaks. This may prevent substantially all movement within the pulley wheel 120 from the direct contact of the first and second braking structures 160, 162 with the teeth, as opposed to only hindering movement of the pulley wheel 120 from a frictional load. Other variations may include using high-friction materials at all contacting surfaces between the pulley wheel 120 and the first and second braking structures 160, 162.

FIG. 4 is a top view illustration of the pulley wheel 120 and axle 122 of the stringing angle clamp device 1 10 of FIG. 3, in accordance with the second exemplary embodiment of the present disclosure. Movement of the first and second braking structures 160, 162 in contacting the pulley wheel 120 may be controlled by the movement of the first and second guide arms 140, 142. Movement of the first and second guide arms 140, 142 may be controlled based on the connection between the first and second guide arms 140, 142 and the axle 122. As is shown in FIG. 4, the axle 122 may be positioned within a hole in each of the first and second guide arms 140, 142, as well as the connecting structure 130. The connecting structure 130 may have a substantially circular hole, or any other type of hole, since it merely rotates around the axle. The first and second guide arms 140, 142, however, may each have holes that allow for rotational movement about the axle 122 and lateral movement towards and away from the axle 122. This lateral movement allows the first and second guide arms 140, 142 to move between the first position where the first and second braking structures 160, 162 on each of the first and second guide arms 140, 142 does not contact the pulley wheel 120, and the second position where the first and second braking structures 160, 162 on each of the first and second guide arms 140, 142 contacts the pulley wheel 120.

The hole within the first and second guide arms 140, 142 may be shaped in a variety of ways to allow for the lateral movement of the first and second guide arms 140, 142. As is shown, the shape of the hole may be a stadium hole, also referred to as 'stadium' or 'stadium circle,' which is a shape having two half circles joined by straight lines with concave sides on the inside. Other names for this shape include 'paper clip oval' and 'racetrack shaped.' This particular shape allows for movement of the first and second guide arms 140, 142 in laterally and rotationally, but may substantially prevent movement in other directions (tolerance dependent). Other shapes that may be used include oval shaped holes, rectangular holes, or another other shape that permits the necessary mo\'ement. As one having skill in the art can see, a position of the axle 122 within the stadium hole of the first and second guide arm 140, 142 may correspond to at least one of the positions, contacting or non-contacting, of the first and second braking structures 160, 162 and the pulley wheel 120.

FIG. 5 is an exploded side view illustration of the connecting structure 230 of a stringing angle clamp device, in accordance with a third exemplary embodiment of the present disclosure. The connecting structure 230 of the third exemplary embodiment may be used with any of the devices of the other embodiments of the present disclosure, or any variations thereof. The connecting structure 230 has a first end 232 which connects to the pulley wheel 220 via an axle (not shown) and a second end 234 which is sized to connect to a utility pole (not shown). The second end 234 may include an adjustable connector structure 236 which allows for making adjustments in the connecting structure 230 when connecting it to the utility pole.

In particular, the adjustable connector structure 236 may have a slot engagement unit 237 which removably engages with an engagement structure 238 on the connecting structure 230. This slot engagement unit 237 and engagement structure 238 may retain the adjustable connector structure 236 to the first end 232 of the connecting structure 230. The slot engagement unit 237 may have a slot or channel that runs around the outer surface, i.e. all four sides, of the adjustable connector structure 236. This design allows the engagement structure 238 to engage with the adjustable connector structure 236 in at least four different orientations. To prevent the slot engagement unit 237 from becoming dislodged, a first hole 282 and perpendicularly intersecting second hole 284 may be formed through the adjustable connector structure 236 and a third hole 280 may be formed through a portion of the connecting structure 230 proximate to the engagement structure 238, as is shown in FIG. 5. A pin or bolt may be inserted within one of the first and second holes 282, 284, depending on the orientation of the adjustable connector structure 236, and inserted in the third hole 280 to retain the structures together appropriately.

As can be seen, the second end 234 of the connecting structure 230 has a forked section with a fourth hole 286 positioned therein, as indicated by broken lines in FIG. 5. This fourth hole 286 at the second end 234 may be used to retain the connecting structure 230 to a utility pole, or a structure on the utility, such as a metallic bracket or similar device. However, depending on the orientation of the bracket affixed to the utility pole, the adjustable connector structure 236 may have to be rotated about an axis parallel to the elongated length of the adjustable connector structure 236. This rotation will allow the fourth hole 286 to have an orientation that can correspond to a bracket on a utility pole.

The adjustability of the slot engagement unit 237 and the engagement structure 238 may allow for different orientations of the adjustable connector structure 236, thereby allowing for different ways of connecting the connecting structure 230 to a bracket on the utility pole. For example, in one orientation, the fourth hole 286 may be parallel to the third hole 280, whereas in another orientation, the fourth hole 286 may be perpendicular to the third hole 280. In this first orientation, a bolt or pin may be placed through the first hole 282 and the third hole 280 to secure the adjustable connector structure 236 to the first end 232, whereas in the second orientation, the bolt or pin may be placed through the second hole 284 and the third hole 280.

FIG. 6 is a side view illustration of a stringing angle clamp device 310, in accordance with a fourth exemplary embodiment of the present disclosure. The stringing angle clamp device 310, which may be referred to herein simply as 'device 310' may be used with any of the devices of the other embodiments of the present disclosure, or any variations thereof. The device 310 includes a pulley wheel 320 rotatable about an axle 322. A connecting structure 330 is rotatably affixed to the axle 322 at a first end and is sized to connect to a utility pole (not shown) at a second end. A first guide arm 340 and a second guide arm 342 are provided, wherein each of the first and second guide arms 340, 342 have mateable arm half sections. The first guide arm 340 and second guide arms 342 are each rotatably affixed to the axle 322. A first messenger wire clamping structure 350 is affixed to the first guide arm 340 and a second messenger wire clamping structure 352 is affixed to the second guide arm 342.

As is shown in FIG. 6, each of the first guide arm 340 and the second guide arm 342 is formed from two halves mechanically fastened together. The two halves for each of the first and second guide arms 340, 342 may be independent of each other when they're not fastened together, and be codependent with each other when they are fastened together. A threaded fastener 370, or similar structure, may be used to fasten the halves of the first and second guide arms 340, 342 together. This design allows for the first and second messenger wire clamping structures 350, 352 to be integral with the first and second guide arms 340, 342, respectively. Specifically, the fastener 370 which holds the halves of the first and second guide arms 340, 342 together may also act as the clamping force within the first and second messenger wire clamping structures 350, 352. Thus, a closed position of the fastener 370 may close the first and second messenger wire clamping structure 350, 352 accordingly. This may allow for easier installation of the messenger wire within the device 310, but still provide the necessary clamping of the messenger wire after installation is complete without a variety of additional fasteners or components.

Also shown in FIG. 6 is a support connection 390 within each of the first and second guide arms 340, 342. The support connection 390 may be formed at a distal end of the first and second guide arms 340, 342 and be used to assist with securing the device 310 in a desired location. The support connection 390 may have an openable hole 391 which is formed by the two halves of each of the first and second guide arms 340, 342. Formed radially about the openable hole 391 may be a groove 393 and channel 392 (indicated with broken lines) which can also be used to secure the device 310. The groove 393 may be a furrow or curved indentation that is formed by edges of the support connection 390 proximate to the openable hole 391, such that the groove 393 runs radially about the openable hole 3 1 on both halves of the support connection 390. The channel 392 may be a passageway, such as a hole or open connection that is formed through both halves of the support connection 390 in a position between the openable hole 3 1 and the fastener 370, as is indicated in FIG. 6. The channel 392 may be integral with the groove 393, thereby providing a fluid path for another structure to be placed in, such as a structure used for securing the messenger wire to the angle clamp device 310. For example, the groove 393 and channel 392 may be used to accept a device such as a helical grip to secure the messenger wire to the angle clamp device 310.

FIG. 7 is a top view illustration of a stringing angle clamp device 310, in accordance with the fourth exemplary embodiment of the present disclosure. As is shown, a messenger wire 308 may be secured between the first and second messenger wire clamping structures 350, 352 and around the pulley wheel, in the same manner as described with reference to FIG. 1. In addition to the first and second messenger wire clamping structures 350, 352, the messenger wire 308 may be secured with a securing device 396, such as a preformed grip, which is looped around support connection 390 and connected to the messenger wire 308. As is shown in FIG. 7, one end of the securing device 396 may be clamped with a fastener 395 to the messenger wire 308 to secure the messenger wire 308 to the angle clamp device 310. Within the industry, using a securing device 396 is to secure the messenger wire 308 may be referred to as a 'dead end.

The other end of the securing device 396 may be looped around the support connection 390 and secured to itself, or secured to another structure. The securing device 396may sit within the groove 393 (FIG. 6) and channel 392 formed within the two halves of the first and second guide arms 340, 342, which may be angled in the direction of the messenger wire 308. When the securing device 396is secured to itself, the securing device 396end may be looped around the support connection 390, such that it traverses around the openable hole 3 1. The securing device 396may then be affixed to itself with a fastener 395, such as a clasp or clamp. The securing device 396may be secured in this position for an indefinite period of time, while the device 310 supports it on the utility pole 306. It is noted that often two securing device 396will be tied off on a device 310, as is shown in FIG. 7. However, the device 310 may also function properly with only one securing device 396being tied off on only one of the first and second guide arms 340, 342.

FIG. 8 is a top view illustration of two stringing angle clamp devices 410, in accordance with a fifth exemplary embodiment of the present disclosure. The devices 410 of the fifth exemplary embodiment may be used with any of the devices of the other embodiments of the present disclosure, or any variations thereof. As is shown, each of the devices 410 includes a pulley wheel 420 rotatable about an axle 422. A connecting structure 430 has at least a first end 432 and a second end 434, wherein the first end 432 is rotatably affixed to the axle 422 and the second end 434 is sized to connect to a utility pole 406. A first guide arm 440 and a second guide arm 442 are each rotatably affixed to the axle 422. A first messenger wire clamping structure 450 is affixed to the first guide arm 440 and a second messenger wire clamping structure 452 is affixed to the second guide arm 442. Similar to as described in FIG. 7, the devices 410 in FIG. 8 may utilize a dead end configuration, where a securing device 496 is secured between the support connection 490 and the messenger wire 408 with fasteners 495 to secure the messenger wire 408 to the devices 410, respectively.

As is illustrated in FIG. 8, two devices 410 may be used together on a single utility pole 406. The devices 410 may function in the same as is discussed with respect to the first exemplary embodiment. It may be necessary or desirable to use two devices 410 to string and retain a wire 408 to a utility pole 406 when the wire 408 arrives and leaves the utility pole 4. In other words, two devices 410 may be used when the angle between the two paths of the wire 408 connecting to the utility pole 406 is substantially between 90° and 120°. Accordingly, a single device 410 may be best suited for angles approximately greater than 120°. It is noted that the structures depicted in FIG. 8 may be varied. For example, the inner first guide arm 440 and inner second guide arm 442 may be omitted, leaving just the outer first and second guide arms 440, 442 to guide the messenger wire 408. This configuration may be useful when there is limited space to use the inner first and second guide arms 440, 442.

FIG. 9 is a flowchart 500 illustrating a method of stringing and retaining a wire on a utility pole in accordance with the first exemplary embodiment of the disclosure. It should be noted that any process descriptions or blocks in flow charts should be understood as representing modules, segments, portions of code, or steps that include one or more instructions for implementing specific logical functions in the process, and alternate implementations are included within the scope of the present disclosure in which functions may be executed out of order from that shown or discussed, including substantially concurrently or in reverse order, depending on the functionality involved, as would be understood by those reasonably skilled in the art of the present disclosure.

As is shown by block 502, a stringing angle clamp device is connected to the utility pole, wherein the stringing angle clamp has a pulley wheel rotatable about an axle, a first guide arm and a second guide arm each of which is rotatably affixed to the axle, and a first wire clamping structure affixed to the first guide arm and a second wire clamping structure affixed to the second guide arm. The wire is strung between the first wire clamping structure and the second wire clamping structure, wherein a portion of the wire between first and second wire clamping structure contacts the pulley wheel (block 504). The wire is retained with each of the first and second wire clamping structures (block 506).

It should be emphasized that the above-described embodiments of the present disclosure, particularly, any "preferred" embodiments, are merely possible examples of implementations, merely set forth for a clear understanding of the principles of the disclosure. Many variations and modifications may be made to the above-described embodiment(s) of the disclosure without departing substantially from the spirit and principles of the disclosure. All such modifications and variations are intended to be included herein within the scope of this disclosure and the present disclosure and protected by the following claims.