Versatile fence support

Abstract

Devices and related methods relate to fence support devices having tension adjustment modules for angularly supporting fence posts and / or adaptive fence bracket configurations for flexibly supporting various fences. In illustrative examples, a fence tensioning module can include a tension adjustment module coupled to a tension adjustment link. For example, the fence tensioning module can adjust a position of the tension adjustment link relative to the tension adjustment module, thereby adjusting a tension of the tension adjustment link. An adaptive fence bracket can include a butterfly clamp and an adaptive C-clamp having two side arms that can be coupled to fence rails and / or other tensioned members to form various fence support configurations. For example, the butterfly clamp can include a spine to engage a spine of a fence post. Various implementations can advantageously provide a strong and adaptable fence configuration.

Description

[0001] Cross-reference to related applications

[0002] This application claims the benefit of U.S. Provisional Application Serial No. 63 / 182,260, entitled "Adaptable Fence Bracing," filed April 30, 2021, by Muhammad Munir. This application also claims the benefit of U.S. Patent No. 63 / 306,388, entitled "Versatile Fence Bracing," filed February 3, 2022, by Muhammad Munir. The entire contents of the foregoing applications are incorporated herein by reference. Technical Field

[0003] Various uses typically involve fencing and / or support, such as fence support. Background Technology

[0004] Fences around farms, ranches, pastures, and other entities are typically constructed from vertically erected supporting members, such as T-posts and / or wooden posts. Posts, for example, can be used to support wire fences and / or barbed wire. These vertically erected supporting members may need to be supported at the ends of the fence, at intervals, and / or at corners and T-joints to provide strength and stability. T-posts can be, for example, steel posts hammered into the ground. Wooden posts, for example, may require holes to be dug manually or with the aid of equipment (e.g., via hydraulic cylinders). Many types of posts, including wooden posts and T-posts, are generally prone to warping and collapse if not adequately supported. Summary of the Invention

[0005] The apparatus and related methods relate to fence support devices having tension adjustment modules for diagonally supporting fence posts and / or adaptive fence bracket configurations for flexibly supporting various fences. In illustrative examples, the fence tensioning module may include a tension adjustment module coupled to a tension adjustment link. For example, the fence tensioning module can adjust the position of the tension adjustment link relative to the tension adjustment module, thereby adjusting the tension of the tension adjustment link. The adaptive fence bracket may include butterfly clamps and adaptive C-clamps having two side arms that can be coupled to fence rails and / or other tension members to form various fence support configurations. For example, the butterfly clamp may include a ridge to engage the spine of the fence post. Various embodiments can advantageously provide a highly adaptable and robust fence construction.

[0006] Various implementations can achieve one or more advantages. For example, some implementations may include a clamping section located between the butterfly clamp and the C-clamp to form a space that facilitates adaptive clamping of fence posts of various sizes. For example, some implementations may include holes of various sizes that facilitate adaptive coupling to fence rails and / or diagonal connecting rods connecting two or more adjacent fence posts. For example, some implementations may include a gearbox to improve the accuracy and / or ease of changing the tension at the tension adjusting link. For example, some implementations may include a locking unit to ensure tension at the tension adjusting link. For example, some implementations may include a threaded receiving channel for threaded coupling to a threaded rod. For example, some implementations may include a crank to easily adjust the tension at the tension adjusting link.

[0007] Details of the various embodiments are set forth in the accompanying drawings and the description below. Other features and advantages will become apparent from the description, the drawings, and the claims. Attached Figure Description

[0008] Figure 1 An exemplary simple and robust fence support system (ERFBS) is described.

[0009] Figure 2A and Figure 2B An exemplary fence support gearbox (FBGB) connected to a tension adjusting rod and a connecting member is depicted, having a hook end ( Figure 2A ) and joint end ( Figure 2B ).

[0010] Figure 3 This is a cross-sectional view of FBGB165, for reference. Figure 2A-2B .

[0011] Figure 4 This is an exemplary gear arrangement for FBGB, see reference. Figure 2A-2B .

[0012] Figure 5 A perspective view of an exemplary tension regulating box is depicted.

[0013] Figure 6 yes Figure 5 Cross-sectional view of the tension regulating box shown

[0014] Figure 7A An exemplary tension regulating box with two receiving channels is shown.

[0015] Figure 7B As shown Figure 7A A cross-sectional view of an exemplary tension regulating box.

[0016] Figure 7C As shown Figure 7AAn exploded view of an exemplary tension regulating box.

[0017] Figure 8 A perspective view depicting an exemplary adaptive fence support (AFB) that supports fence posts is shown.

[0018] Figure 9 A perspective view of an exemplary butterfly clamp is depicted.

[0019] Figure 10 A perspective view of an exemplary C-shaped clamp is depicted.

[0020] Figure 11 A top view of an exemplary AFB is shown.

[0021] Figure 12 A second exemplary arrangement is shown, combined with Figure 9 butterfly clamps Figure 10 C-shaped clamps, AFBs, and fence posts.

[0022] Figure 13A , Figure 13B and Figure 13C A top plan view of an exemplary AFB arrangement is shown, wherein one end of the fence rail 115 is mounted at various locations of the AFB.

[0023] Figure 14A , Figure 14B , Figure 14C and Figure 14D A top plan view of an exemplary AFB connecting two fence rails is shown.

[0024] Figure 15A , Figure 15B and Figure 15C Exemplary applications of ERFBS with wooden posts, T-posts, and combinations thereof are depicted.

[0025] Figure 16A and Figure 16B An exemplary support rail is depicted.

[0026] The same reference numerals in different figures denote the same elements. Detailed Implementation

[0027] To aid understanding, this document is organized as follows. First, to help introduce the various implementation methods, please refer to... Figure 1 This paper introduces an exemplary, simple, and robust fence support system for quickly and sturdily supporting fences. Secondly, referring to Figures 2-4, some exemplary implementations of the fence support gearbox are described. Thirdly, referring to... Figure 5-7C This section introduces various exemplary implementations of the tension adjustment module. Fourth, refer to... Figure 8-12 This section discusses exemplary implementations of various applications of adaptive fence supports. Fifth, refer to... Figure 13A-15C This document describes exemplary apparatus and methods for installing sturdy fences using a simple, robust fence support system. Finally, it discusses further implementation methods and exemplary applications related to the simple, robust fence support system.

[0028] Figure 1 An exemplary simple and robust fence support system (ERFBS) 100 is depicted. For example, the ERFBS 100 can be a robustly and securely constructed fence. In this example, the ERFBS 100 includes two vertical fence posts 105, one end of which is partially immersed in a substrate 110 (e.g., the ground). The fence posts 105 can be variations of T-posts, Y-posts, or star-posts. In some embodiments, the fence posts 105 may be steel posts. In this example, the fence posts 105 include studs 106 along their longitudinal axis. The studs 106 prevent the wire fence (not shown) from sliding up or down on the fence posts 105. In some embodiments, by way of example and not limitation, the wire fence may include barbed wire. The wire fence may also include high-strength metal wire. In some examples, the wire fence may also include a mesh fence.

[0029] Between fence posts 105, the ERFBS 100 includes fence rails 115 horizontally coupled to each end of the fence posts 105. In this embodiment, the length of the fence rails 115 is adjustable. In use, the length of the fence rails 115 can be adjusted to accommodate various distances between the fence posts 105. In this example, the fence rails 115 include an outer rail 120, an inner rail 125, and a connecting member 130 (e.g., a length adjusting bolt). In this embodiment, at one or both sidewalls, the outer rail 120 and the inner rail 125 have spaced perforations starting from the ends of the rails. The fence rails 115 can be adjusted to the desired length by sliding the outer rail 120 relative to the inner rail 125 and aligning a pair of perforations in the outer rail 120 and the inner rail 125. The connecting member 130 can be fastened through the alignment hole between the inner rail 125 and the outer rail 120, and the overlapping end can be fixed in place with bolts, thereby fixing the fence rail to the desired length.

[0030] In some embodiments, the fence rail 115 may include a rectangular tube (e.g., a square tube). The first fence rail may slide within the second fence rail. In other embodiments, the fence rail 115 may include an open shape (e.g., an "L-shape" such as an angle iron).

[0031] In the illustrated example, the fence rail 115 is coupled (opposite ends) to each fence post 105 using an adaptive fence clip (AFB 135). The AFB 135 provides flexibility in the connection between the fence post 105 and the fence rail 115.

[0032] like Figure 1 As shown in the close-up view, AFB 135 includes a slot 140. The slot 140 is for engaging (e.g., mechanically coupling) the studs 106 of the fence post 105. In some embodiments, AFB 135 may include a clamping unit to engage the fence post 105, such that AFB 135 is securely fastened to the fence post 105. (See also...) Figure 8-12 Various implementations of AFB 135 will be discussed further.

[0033] In the depicted example, AFB 135 includes a coupling 145 for connecting the fence post 105 to the fence rail 115. For example, coupling 145 may receive fastening bolts 146 to securely connect to the fence rail 115. Thus, due to the secure engagement between the fence post 105 and AFB 135, the fence post 105 is securely connected to the fence rail 115. In various embodiments, AFB 135 can provide multiple ways for engaging the fence post 105. Therefore, AFB 135 can advantageously provide flexibility in constructing the ERFBS 100.

[0034] AFB 135 also includes a connector 150 for diagonal connection to adjacent fence posts 105 via tension adjustment rods 155. In some embodiments, by connecting to adjacent fence posts 105, ERFBS 100 can further enhance resistance to rotational forces (e.g., "torque" or moment).

[0035] As shown in this example, the ERFBS100 includes a fence support gearbox (FBGB 165). In this example, the FBGB165 diagonally connects two adjacent fence posts 105 via a connecting tension adjustment rod 155 and a connecting rod 160. The FBGB 165 can be used to adjust the tension between the fence posts 105 to advantageously improve reinforcement and stability. In some examples, the tension of the ERFBS100 may decrease after a period of use due to factors such as weather conditions and / or other external disturbances. The FBGB 165 can be used to readjust the tension between the fence posts 105 to maintain the fence strength at a desired level.

[0036] In this example, FBGB 165 receives the connecting rod 160 at a fixed length between the fence post 105 (connected to the connecting rod 160) and FBGB 165. Figure 1As shown in enlarged view B, the tension adjusting rod 155 passes through FBGB 165. As indicated, a through-length 170 is allowed to pass through FBGB 165. In some embodiments, FBGB 165 can adjust the tension between two adjacent fence posts 105 by adjusting the through-length 170. For example, the through-length 170 can be increased to tighten the tension between the fence posts 105, or decreased to relax the tension between the fence posts 105.

[0037] In some embodiments, FBGB 165 may also include a locking unit. For example, the locking unit may be a nut threaded along the tension adjusting rod 155. The locking unit may be fastened against FBGB 165 to secure the through length 170 of the tension adjusting rod 155.

[0038] The ERFBS100 includes a tension adjustment box 175. As shown in the figure, the tension adjustment box 175 can provide tension adjustment function without the use of a gearbox.

[0039] Figure 2A and Figure 2B An exemplary FBGB 165 is depicted connecting the tension adjusting rod 155 and the connecting rod 160, which has a hook end ( Figure 2A ) and joint end ( Figure 2B For example, the tension adjusting lever 155 can be a threaded shaft. The tension adjusting lever 155 can be connected at one end to the fence post 105. The connecting rod 160 can be diagonally connected to another fence post. The connecting rod 160 enters at the gearbox housing 205. FBGB 165 also includes a handle 210 for operating an internal gear system (not shown). The internal gear system can be used to adjust the relative position of the tension adjusting lever 155 and FBGB 165.

[0040] In this example, the tension adjusting lever 155 is a fully threaded lever. In other embodiments, the tension adjusting lever 155 may be a partially threaded lever with threads at its ends. In some examples, the tension adjusting lever 155 may be partially threaded to facilitate gripping at either end of the tension adjusting lever 155.

[0041] Rods 155 and 160 can be configured with end caps (relative to the far end of FBGB 165). Figure 2A As shown, both the distal end of the tension adjusting rod 155 and the connecting rod 160 are provided with hook ends 215. For example, hook ends 215 can be used to engage posts and / or AFB 135. Therefore, users can use FBGB as a reusable tensioning tool to apply tension to fences (e.g., supports, wire mesh). For example, users can use FBGB 165, along with diagonal support rods and tension adjusting boxes 175, to tighten fences, wire mesh, and / or cables.

[0042] exist Figure 2B In the example shown, the distal ends of the tension adjusting rod 155 and the connecting rod 160 are each provided with a connecting end 220. The connecting end 220 can be connected (e.g., by pins, screws, and / or bolts) to the AFB 135. For example, the FBGB 165 can be installed (permanently or semi-permanently) as an adjustable tension support module (e.g., a diagonal fence support).

[0043] Terminals (e.g., 215, 220) can be releasably coupled to the corresponding rod. For example, the terminal can be threaded to receive the distal end of the corresponding rod. In some embodiments, the terminal can be fixedly coupled (e.g., welded) to the rod, or pinned to the rod. By way of example and not limitation, some embodiments can be rotatably coupled (e.g., via a rotary joint such as a forged rotary joint) to the rod. Embodiments with rotary joints are advantageous for repositioning the FBGB 165 to the desired operating orientation.

[0044] In some examples, a variety of materials can be used to manufacture one or more parts.

[0045] For example, the tension adjusting rod 155 can be made of aluminum for better durability and lighter weight. The tension adjusting rod 155 can also be made of brass for greater corrosion resistance. In some embodiments, other metallic materials such as steel, titanium, bronze, and / or copper can be used. Polymers and / or fiber-reinforced polymers (e.g., carbon fiber, glass fiber) can also be used.

[0046] Figure 3 It is a reference Figure 2A-2B A cross-sectional view of the described FBGB 165.

[0047] In this example, FBGB 165 includes a ring gear 305 operatively coupled to pinion 310. Rotation of pinion 310 can cause a corresponding rotation of ring gear 305.

[0048] In this example, pinion 310 is operatively connected to handle 210. Rotation of handle 210 causes pinion 310 to rotate, which in turn causes ring gear 305 to rotate.

[0049] As shown in the figure, FBGB 165 includes a threaded cavity 315 for receiving a tension adjusting rod 155. The tension adjusting rod 155 can be rotatably inserted into the threaded cavity 315. In some embodiments, a portion of the threaded cavity 315 can be driven by a ring gear 305. The ring gear 305 can rotate a portion of the threaded cavity 315 to adjust the relative position of the tension adjusting rod 155 and FBGB 165.

[0050] FBGB 165 includes a support chamber 320 releasably coupled to a connecting rod 160. In some embodiments, the support chamber 320 may be threaded to securely receive the connecting rod 160. The support chamber 320 may include a friction-initiating material to hold the connecting rod 160 in place. As shown, the support chamber 320 may receive the connecting rod 160 substantially parallel to the axis of the threaded cavity 315.

[0051] The support chamber 320 includes a soft stop unit 325. In some embodiments, the soft stop unit 325 can advantageously provide tension relief during insertion of the connecting rod 160 into the support chamber 320 to prevent damage to the support chamber due to excessive tension. The soft stop unit 325 can be a rubber stop or a coil spring.

[0052] Figure 4 As shown in the reference Figure 2A-2B An exemplary gear arrangement of the described FBGB 165. In this figure, housing 205 is removed for better observation of the internal gear system. Ring gear 305 includes an extension hole 405 to receive tension adjusting rod 155. Extension hole 405 can be configured to thread-engage tension adjusting rod 155.

[0053] In operation, the handle 210 can be operated to rotate the pinion 310. The pinion 310, having a rotation axis substantially perpendicular to the ring gear 305, can cause the ring gear 305 to rotate, so that the extension hole 405 can concentrically engage the tension adjusting rod 155, thereby changing the relative position of the tension adjusting rod 155 and the FBGB 165, and thus selectively adjusting the tension between the fence posts connected by the FBGB 165.

[0054] In various embodiments, during the setup of ERFBS100, FBGB 165 can be selectively operated in a sliding mode, in which the tension adjusting lever 155 is allowed to slide along a first longitudinal axis in the threaded cavity 315. In other embodiments, FBGB 165 can be operated in a threaded mode, wherein a ring gear 305 threadedly engages the tension adjusting lever 155 to FBGB 165. The ring gear 305 can be rotated via handle 210 to selectively adjust the tension of FBGB 165. After the desired tension is reached, FBGB 165 can be operated in a locking mode, in which a locking unit clamps the tension adjusting lever in a static position relative to FBGB 165. In some embodiments, FBGB 165 may not include a sliding mode.

[0055] Figure 5 A perspective view of an exemplary tension regulating box 175 is depicted. In various examples, the tension regulating box 175 can be used instead of... Figure 1FBGB 165. As shown, the tension adjusting box 175 includes a channel 505 for receiving a tension adjusting rod 155 and a chamber 510 for receiving a connecting rod 160. In this example, the tension adjusting box 175 also includes a rotating member 515 (e.g., a knob, as shown). In some embodiments, the rotating member 515 may be a bolt. The knob can be operated by a tool (e.g., a wrench). Rotating the knob may omit the handle.

[0056] Figure 6 Describing as Figure 5 The diagram shows a cross-sectional view of the tension adjusting box 175. As shown, the rotating member 515 has a threaded shaft that engages the clamping block 605. Rotation of the rotating member 515 causes the clamping block 605 to move along a longitudinal axis perpendicular to the channel 505. When the channel 505 receives the tension adjusting rod 155, the clamping block 605 engages and prevents the tension adjusting rod 155 from slipping. In various embodiments, the clamping block 605 may be threaded to advantageously apply a firm clamping force to the threaded tension adjusting rod 155.

[0057] In the depicted example, clamping block 605 may be at least partially elastomeric. Clamping block 605 may include at least one terminal pad 610 and terminal pad 615 (e.g., natural rubber, vulcanized rubber, polyurethane). In some embodiments, by way of example and not limitation, the terminal pad may be formed of a material with a Shore D hardness of 60-80. When clamping block 605 is operated to the locking mode, this relatively rigid rubber can advantageously resist rotational and / or axial displacement of tension adjusting lever 155. In some embodiments, terminal pad 610 may be metal (e.g., deformable under a predetermined clamping pressure). Terminal pad 610 may be aluminum (e.g., 6010 aluminum), brass, and / or copper.

[0058] In some embodiments, terminal pad 610 may be threaded. Terminal pad 615 may be adjustable for maximum clamping force. Spatial tolerance between clamping block 605 and the corresponding cavity in tension adjustment box 175 may allow clamping block 605 to move axially (e.g., parallel to channel 505) during engagement of terminal pad 610 with channel 505 (e.g., to allow the threads of terminal pad 610 to engage the threads of connecting rod).

[0059] In some embodiments, during tension adjustment, the desired tension can be achieved by sliding the tension adjusting lever 155 relative to the tension adjusting box 175 to a desired length. In some examples, the rotating member 515 can be rotated to increase the friction between the clamping block 605 and the tension adjusting lever 155. For example, when the friction exceeds a (predetermined) threshold, slippage of the tension adjusting lever 155 can be prevented. Therefore, the tension adjusting box 175 can provide an alternative for adjusting the tension at the tension adjusting lever. In some embodiments, the tension adjusting box 175 can advantageously provide a more affordable alternative for diagonally supporting the fence posts 105.

[0060] In some embodiments, the end of the rod may be provided with a rotary joint, for example, regarding Figure 2A-2B As discussed. In such an embodiment, the end of the rod can engage with the opposite end to be supported (e.g., the first post and the second post). The rotating member 515 can cause the clamping block 605 to be in a sliding mode (e.g., allowing the rod to slide axially through the channel 505) when the coefficient of friction and / or the normal force is below the corresponding predetermined thread threshold Tt.

[0061] Once the rod is in the desired position, the rotating member 515 can engage the clamping block 605 in a threaded mode (e.g., engaging the rod such that the coefficient of friction and / or normal force is higher than the corresponding Tt and lower than the corresponding predetermined clamping threshold Tc). The rod and / or tension adjusting box 175 can rotate relative to each other, causing the rod to translate relative to the tension adjusting box 175 along the longitudinal axis of the channel 505. Thus, the rod can be threaded to apply the desired tension. Once the desired tension is achieved, the rotating member 515 can be operated to engage the clamping block 605 in a clamping mode, where the coefficient of friction and / or normal force can be higher than the corresponding Tc (Tc>Tt). Thus, the user can advantageously and quickly position the rod in a sliding mode, generate the desired tension in a threaded mode, and then clamp the rod in place.

[0062] Figure 7A An exemplary tension regulating box 700 with two receiving channels 705, 710 is shown. In some embodiments, the ERFBS 100 may include two tension regulating rods 155 diagonally coupled to the tension regulating box 700. In some examples, the tension regulating box 700 can adjust the tension of each received tension regulating rod 155 by adjusting the relative position between the tension regulating box 700 and the corresponding tension regulating rod 155. The tension regulating box 700 also includes two control members 715, 720. In some embodiments, the control members 715, 720 may be hexagonal sockets. For example, the control members 715, 720 can be controlled by inserting and rotating a hex wrench (e.g., an internal hex wrench, such as a Z-type internal hex wrench).

[0063] Figure 7B As shown Figure 7A A cross-sectional view of the exemplary tension regulating box 700 described herein. Figure 7C As shown Figure 7A An exploded view of the exemplary tension adjusting box 700 described herein. In this example, for each of channels 705, 710, the tension adjusting box 700 includes a clamping block 725. Each clamping block 725 can be used to hold a received tension adjusting rod. In this example, each clamping block 725 can be in pressure contact with a corresponding control member 715, 720 (depicted as a bolt with a socket). In various examples, a spring coil 730 can be received in a tension relief chamber 755 to prevent excessive tension and damage to the tension adjusting rod or the tension adjusting box 700. The spring coil 730 can push the clamping block 725 away from the channel 705 such that the vertical position of the clamping block 725 is determined by the position of the control members 715, 720 in the top block 740 (e.g., through a threaded hole, as shown).

[0064] As shown in the figure, the top block 740 is coupled to the body of the tension regulating box 700 via a fastener 744 (press-fit thread), thereby engaging the cavity 745 (threaded and sized to receive the fastener). The cavity 750 is used to receive the clamping block 725 (slidably) into the body of the tension regulating box 700.

[0065] In some embodiments, clamping block 725 may be configured with reference to clamping block 605. For example, clamping block 725 may include a corresponding rubber pad. Clamping block 725 may include threaded block 735. As shown, threaded block 735 includes a threaded end configured to selectively engage a threaded rod passing through a corresponding lumen (e.g., channel 705, 710) in response to operation of control members 715, 720.

[0066] In some embodiments, during operation, when the control member 715 is rotated and driven toward the channel 705, the spring coil 730 may be pressed against the clamping block 725. For example, when the tension adjusting rod is received in the channel 705 and the control member 715 rotates toward the channel, the tension adjusting rod may be fixed at the desired position in the tension adjusting box 700.

[0067] Figure 8A perspective view of an exemplary adaptive fence support (AFB) 135 supporting a fence post 105 is depicted. As shown, the AFB 135 includes a butterfly clamp 805 and a C-clamp 810. In this example, the butterfly clamp 805 is mounted on the spine side of the fence post 105. The C-clamp 810 is mounted on the opposite side, i.e., the stud side 105 of the fence post. As shown, the corresponding sidewall 815 of the C-clamp 810 extends from each side in the same direction as the spine side 820 of the fence post 105. In this configuration, the body of the fence post 105, as shown in this example, is clamped between the butterfly clamp 805 and the C-clamp 810.

[0068] In this example, the butterfly clamp 805 and the C-clamp 810 are fastened to each other and thus to the fence post 105 using bolts 825a and 825b (e.g., 825b may have a larger diameter than 825a). As shown, the fence post 105 includes a stud 830 that protrudes through a slot 140 when the AFB 135 is secured to the fence post 105.

[0069] Figure 9 A perspective view of an exemplary butterfly clamp 805 is depicted. In this example, the butterfly clamp 805 includes a rib receiving channel 905. The rib receiving channel 905 can receive the ridge portion of a T-shaped post along a longitudinal axis. Starting from the rib receiving channel 905, the butterfly clamp 805 includes two sidewalls 815. In this example, the sidewalls 815 include two pairs of horizontally aligned first holes 915. In some embodiments, the first holes 915 can be aligned with a C-shaped clamp in use for secure attachment to the T-shaped post. In this example, the sidewalls 815 also include a pair of horizontally aligned second holes 920. In some embodiments, the second holes 920 can be larger than the first holes 915. For example, the second holes 920 can be used for attachment to a tension adjusting rod 155 and / or a connecting member 160.

[0070] In this example, the butterfly clamp 805 also includes an adaptive surface 925 located between the rib receiving channel 905 and each sidewall 815. In some embodiments, the adaptive surface layer can be adaptively coupled to the space of fence posts of different sizes and thicknesses.

[0071] Figure 10 A perspective view of an exemplary C-clamp 810 is depicted. The C-clamp 810 includes a rear wall 1105. The rear wall 1105 may, as shown in this example, engage the stud side of a fence post 105. The C-clamp 810 includes two slots 140 for receiving studs 830 of the fence post 105. The C-clamp 810 also includes a first hole 1005 and a second hole 1010 for alignment with a butterfly clamp 805.

[0072] For example, the stud of the T-shaped post may protrude through the slot 140. The rear wall 1105 includes two pairs of horizontally aligned first holes 1005. In some embodiments, the first holes 1005 may be aligned with the first hole 915 of the butterfly clamp 805. In this example, the rear wall 1105 also includes a pair of horizontally aligned second holes 1010. The second holes 1010 may be larger than the first holes 1005. For example, the second holes 1010, together with the second holes 920, may be used for secure connection with the tension adjusting rod 155 or the connecting member 160.

[0073] In the depicted example, the C-shaped clamp 810 includes sidewalls 815 extending vertically from the upper two-thirds of the rear wall 1105. In some implementations, each sidewall 815 may include two sets of horizontally arranged lateral opposing holes 1115 for fastening the device. In various implementations, the lateral opposing holes 1115 may be used to couple the fence post 105 to the fence rail 115.

[0074] In some embodiments, the butterfly clamp 805 may also be coupled to a support, which is a flat plate having the features described in the rear wall 1105.

[0075] In some embodiments, the combination of hole 920, corresponding hole 1010, and bolts 825a, 825b with accompanying nuts 1205a, 1205b can serve a dual purpose. For example, in addition to securing the corresponding clamps to fence posts 105, the combination can also be used to fasten tension adjusting rod 155 and connecting member 160 to AFB 135.

[0076] Figure 11 A top view of an exemplary AFB 135 is shown. As this example illustrates, when the butterfly clamp 805 and the C-clamp are combined, the AFB 135 includes a clamping gap 1305 created by the adaptive surface 925 of the butterfly clamp 805. Therefore, the AFB 135 can advantageously accommodate fence posts 105 of various sizes and thicknesses.

[0077] Figure 12 The combination is shown Figure 9 805 butterfly clamp Figure 11 A second exemplary arrangement of the exemplary AFB135 of the C-shaped clamp 810 and the fence post 105. As shown, the butterfly clamp 805, the C-shaped clamp 810 and the fence post 105 are arranged in conjunction with... Figure 8 The fasteners are secured in a similar manner to those described in the figure. As shown, the C-clamp 810 is fastened to the butterfly clamp 805 using bolts 825a, 825b and nuts 1205a, 1205b. In this example, the sidewall 815 extends in the opposite direction to the spinal side 820.

[0078] Figure 13A , Figure 13B and Figure 13C A top view of an exemplary AFB 135 arrangement is shown, wherein one end of the fence rail 115 is mounted at various locations of the AFB 135. See also Figure 13A One end of the fence guide rail 115 is mounted between the side walls 815 of the C-shaped clamp 810. As shown in the figure, the fastening bolt 1505 passes through a pair of holes 1115a and 1115b on the side wall 815 and through the hole in the fence guide rail 115. The fastening bolt 1505 is secured by an internally threaded nut 1510 screwed onto the externally threaded section of the fastening bolt 1505.

[0079] Reference Figure 13B The fence rail 115 is mounted on the outer side of one of the sidewalls 815 of the C-shaped clamp 810. In this example, the sidewall 815 (e.g., a side arm) is located on the stud side of the fence post 105. As shown, the fastening bolt 1505 passes through a hole in the fence rail 115 and a hole 1115 in the sidewall 815. The fastening bolt 1505 is secured with an internally threaded nut 1510 screwed onto the externally threaded section of the fastening bolt 1505.

[0080] Reference Figure 13C Fence rails 115 are mounted between sidewalls 815. As shown in this example, the sidewalls 815 are located on the spine side of the fence posts 105. In this case, fastening bolts 1505 can pass through a pair of holes 1115 in the sidewalls 815.

[0081] Figure 14A , Figure 14B , Figure 14C and Figure 14D A top view of an exemplary AFB 135 connecting two fence rails 115 is shown. (Refer to...) Figure 14A AFB 135 is coupled to another C-clamp 810b, forming an extended AFB 1600 with a combination of C-clamps 810a and 810b. In some examples, either side of the AFB 1600 may have a sidewall 815 for securing the fence rail 115. As shown in this example, a first fence crossbar 115a is secured to C-clamp 810a, and a second fence crossbar 115b is secured to C-clamp 810b.

[0082] Reference Figure 14B The fence rails 115a and 115b are mounted on the outer side of the sidewall 815 of the AFB 135. In this example, the fastening bolt 1605 passes through the fence crossbar 115a, the inner hole 1115, and the fence crossbar 115b. In this example, the fastening bolt 1605 is secured with a nut 1610. Figure 14C A similar installation of the fence rail on the AFB 135 is shown. (See image for reference.) Figure 14CAs shown, fence rails 115a and 115b are mounted on the outer side of the sidewall 815 of AFB 135. In this example, fastening bolt 1605 passes through fence rail 115a, outer aperture 1115, and fence rail 115b. In this example, fastening bolt 1605 is secured with nut 1610.

[0083] To support the corners and T-joints of the fence, the fence rails 115 can be installed perpendicular to each other in some embodiments. For example... Figure 14D As shown, AFB 135 is mounted on a corner fence post. For example, fence rail 115a can be fastened to the outside of side wall 815. Fence rail 115b can be fastened between side arms. Fastening bolt 1605 can pass through one end of fence rail 115a, hole 1115a, one side of fence rail 115b, and hole 1115b. Fastening bolt 1605 can be secured with nut 1610.

[0084] Figure 15A , Figure 15B and Figure 15C Exemplary applications of the ERFBS100 with wooden posts, T-posts, and combinations thereof are shown. For example, Figure 15A A corner fence support 1501 constructed using fence posts 105 (T-shaped posts, as shown) is depicted. In various implementations, adjacent fence posts 105 can be diagonally supported by one or two tension adjusting rods. Figure 15B-15C As shown, the support structure can be constructed at least partially using wooden posts 1505. For example, corner fence support 1502 depicts corner wooden posts 1505 connecting to two T-shaped posts (fence posts 105). Corner fence support 1703 depicts three wooden posts 1505.

[0085] As shown, the tension adjusting rod can be connected to the wooden post 1505 (e.g., instead of using AFB 135) via a connecting feature of the fence rail 115. For example, the connecting member 1510 can be embedded in the wooden post 1505. For example, the connecting member 1510 can be a bolt fastened through a hole drilled in the wooden post 1505. In some embodiments, one end of the tension adjusting rod (e.g., connected to the tension adjusting box 175 and / or 700) can be directly connected to the connecting member 1510 (e.g., instead of connecting to the fence rail 115).

[0086] In some examples (not shown), AFB 135 may be coupled to post 1505 (e.g., through first hole 1005 and / or second hole 1010). Fence rail 115 and / or tensioning module (e.g., support 175, support 700) may be coupled to post 1505 via AFB 135.

[0087] Figure 16A and Figure 16BAn exemplary fence rail is depicted. Figure 16A As shown, the fence rail 115 is assembled from an inner rail 125 and an outer rail 120. In the depicted example, both the inner rail 125 and the outer rail 120 have a substantially rectangular cross-section (e.g., a square cross-section, as shown). The inner rail 125 is slidably received within the outer rail 120. The inner rail 125 is provided with a first set of holes 1820 distributed along the longitudinal axis of the inner rail 125. The outer rail 120 is provided with a second set of holes 1825 distributed along the longitudinal axis of the outer rail 120. When the longitudinal axes of the inner rail 125 and the outer rail 120 are aligned and the inner rail 125 and the outer rail 120 slide together to a desired length such that at least one of the first set of holes 1820 is aligned with at least one of the second set of holes 1825, coupling elements 130 (e.g., bolts and nuts, pins) can be coupled through the corresponding holes to secure the fence rail 115 to the desired length.

[0088] In the depicted example, both the inner rail 125 and the outer rail 120 have holes 1835a at their distal ends. For example, holes 1835a can be used to fasten the distal end of the rail to a post (e.g., directly to AFB 135 by bolts). Hole 1815 can be configured to provide an entrance into the interior of the rail to reach the inner side of the distal end (e.g., to the interior of hole 1835a). For example, hole 1815 can advantageously provide passage for fastening bolts, nuts, and / or other connecting members.

[0089] In the depicted example, the inner rail 125 and the outer rail 120 are each provided with at least one aperture 1835b, located exactly at the proximal end of the distal end. For example, at least one aperture 1835b can be used to attach the fence rail 115 to the body (e.g., post, AFB 135, anchor in a wooden post).

[0090] As shown in the figure, the inner rail 125 and the outer rail 120 are each provided with a connecting member 1840 (e.g., a tab with a hole as shown) extending substantially orthogonally from the longitudinal axis. The connecting member 1840 can receive (e.g., via bolts, pins, rivets) the ends of diagonal struts (e.g., the engaging end 220 of FBGB 165, the rod 155 of tension adjustment box 175 and / or tension adjustment box 700, and / or the connecting member 160). Figure 16BAs shown, the fence rail 115 is assembled from a first rail 1850 and a second rail 1855. In the example shown, the first rail 1850 is provided with a first set of holes 1860. The second rail 1855 is provided with a second set of holes 1865. In the depicted example, each hole 1865 extends (as a slot) in a first direction substantially parallel to the longitudinal axis of the fence rail 115. Each hole 1860 extends (as a slot) in a second direction substantially orthogonal to the longitudinal axis of the fence rail 115. When the first rail 1850 and the second rail 1855 are aligned such that their corresponding longitudinal axes are substantially aligned, the first rail 1850 and the second rail 1855 can be connected together by at least one connecting member 130 passing through the first set of holes 1860 and the second set of holes 1865. As shown, holes 1860 and 1865 extend in different directions (e.g., substantially orthogonal to each other, as shown), allowing the user to easily align the holes to insert at least one connecting member 130 through them. For example, a slot can advantageously allow the orifices to be aligned regardless of any misalignment within the holes due to the thickness of the first guide rail 1850 and the second guide rail 1855. For example, a slot can allow the first guide rail 1850 and the second guide rail 1855 to be interchangeably used as inner or outer guide rails (e.g., nested within each other, with one capable of nesting inside the other and / or positioned above the other guide rail).

[0091] Although various embodiments have been described with reference to the accompanying drawings, other embodiments are also possible. In some embodiments, FBGB 165 may include various gear ratios. For example, the ring gear 305 and pinion 310 may have a ratio of 1:1 to 3:1. In some embodiments, a worm gear may be used at FBGB 165. The worm gear may be a reduction gear. FBGB 165 may also include a self-braking system. For example, when the tension at tension adjusting lever 155 is higher than a threshold, FBGB 165 may automatically stop the length adjustment of the tension adjusting lever. For example, the self-braking system may prevent excessive tension at FBGB and protect the fence from damage. In some embodiments, the reduction worm gear (e.g., driving ring gear 305, for example, instead of pinion 310) may be configured as a self-braking (self-locking) system. For example, the worm gear may prevent the ring gear 305 from rotating in response to tension applied to the screw. For example, some such embodiments may not have a stop block.

[0092] In some implementations, torque transmission can be provided by a ring gear 305 and a pinion 310, as depicted in the corresponding figures. In some examples, the ring gear 305 and / or the drive gear (e.g., the pinion 310) can be configured as bevel gears. The gears can be implemented as spur gears.

[0093] Some implementations (e.g., those of FBGB 165) may include a stop block. For example, the stop block may be configured as a self-braking mechanism. In some implementations, the stop block may be configured as a manually activated braking mechanism. The stop block may clamp a rotating member (e.g., a gear, a screw) to prevent the screw from rotating in response to tension. Other implementations may omit the stop block.

[0094] In some implementations, the clamping blocks (e.g., 605, 725) can be configured as floating blocks. For example, the floating block can be positioned within a cavity in the corresponding body (e.g., 175, 700), which is larger in at least one dimension. Thus, the floating block can have space to "float" along at least one axis, allowing the block to be aligned with the threaded rod (e.g., matching the thread when operating from a sliding mode to a threaded or clamping mode). Terminal pads (e.g., 615) can be disposed within the cavity to provide (predetermined) minimal friction, prevent "clicking," and / or reduce "tilting" (e.g., when the block is clamped by, for example, 515, 715, and / or 720).

[0095] In some embodiments, the pinion 310 can be driven by a hexagonal socket. For example, the pinion 310 can be operated by inserting an Allen wrench into the hexagonal socket.

[0096] Although it has been referenced Figure 1 An exemplary system has been described, but the device can be applied to other industrial, scientific, medical, commercial and / or residential uses.

[0097] For example, a post support clamp may include a butterfly clamp. The butterfly clamp may include a rib receiving channel configured to receive a first longitudinal rib of a fence post. The fence post may extend along a longitudinal axis. The butterfly clamp may include a protrusion extending from a corresponding proximal edge of the rib receiving channel and configured to align with a second longitudinal rib of the fence post. The first and second longitudinal ribs may intersect in a plane orthogonal to the longitudinal axis. The post support clamp may include a receiving clip. The receiving clip may include a first wall having a fastening hole that receives at least one stud extending from a surface of the second longitudinal rib. The receiving clip may include two sidewalls extending from opposite edges of the first wall, each sidewall including a connection hole releasably connected to a side rail. When the butterfly clamp and the receiving clip are coupled on either side of the first wall, the fastening hole may engage at least one stud to resist translation parallel to the longitudinal axis, and the rib receiving channel may engage the first longitudinal rib to resist rotation about the longitudinal axis.

[0098] When the butterfly clamp and the receiving clamp are coupled together, the two sidewalls can be configured to be releasably coupled to multiple side rails such that each side rail is substantially orthogonal to the fence post.

[0099] The proximal edge of the receiving rib channel may include an offset bridge connecting a tab to the horizontal plane and the plane of the proximal edge, such that when the butterfly clamp and the receiving clamp are coupled together to support the fence post, the offset bridge and the first wall of the receiving clamp create an adaptive space to accommodate fence posts of various shapes.

[0100] The column support clamp may include a second receiving clamp connected to the receiving clamp.

[0101] Each of the two sidewalls may extend approximately two-thirds of the way from the corresponding proximal edge of the first wall. The two sidewalls may include more than one pair of coaxially aligned coupling holes for releasable connection to the side rail.

[0102] For example, a tensioning module may include a flow cavity channel defined at a distal end with an aperture, the channel slidably receiving a threaded rod such that the threaded rod extends along a first longitudinal axis. The tensioning module may include a connecting member located at a proximal end, which may be coupled to a connecting link extending along a second longitudinal axis substantially parallel to the first longitudinal axis. The tensioning module may include a gear ring concentrically and at least partially threaded to the threaded rod, such that rotation of the gear ring causes movement of the threaded rod along the first longitudinal axis. The tensioning module may include a second gear, which may be coupled to a ring gear and has a rotational axis perpendicular to the rotational axis of the ring gear. The second gear may be configured such that rotation of the second gear along a first rotational direction causes rotational movement of the gear ring about the threaded rod, thereby changing the position of the threaded rod relative to the tensioning module.

[0103] The second gear may include a pinion. The second gear may include a worm gear.

[0104] The tensioning module may include a lever arm. When a user operates the handle, the lever arm causes the second gear to rotate. The lever arm includes a handle releasably coupled to the second gear.

[0105] The gear ring can be mounted to the housing via at least one rolling bearing.

[0106] The connecting member may include a threaded channel configured to receive a connecting rod such that the position of the connecting rod relative to the channel is adjustable.

[0107] For example, a tensioning module may include an object having an aperture and channel at its distal end, the channel substantially passing through a cavity of the object. The channel slidably receives a tension adjusting link such that the tension adjusting link extends along a first longitudinal axis. The tensioning module may include a connector located at the proximal end of the body. The connector may be coupled to a connecting link extending along a second longitudinal axis substantially parallel to the first longitudinal axis. The tensioning module may include a tension adjusting module that selectively engages the tension adjusting link with the tensioning module. The tension adjusting module may selectively operate between a sliding mode and a tension adjusting mode. In the sliding mode, the channel is configured to allow the tension adjusting link to slide within the cavity along the first longitudinal axis. In the tension adjusting mode, the tension adjusting module performs tension adjustment, operating the tension adjusting link such that the position of the tension adjusting link relative to the tensioning module changes, thereby adjusting the tension between the proximal end of the connecting link and the distal end of the tension adjusting link.

[0108] The tension adjusting linkage may include a threaded rod. The tension adjusting mode can be a threaded mode, where the threaded rod engages with the threaded channel of the tension adjusting module. In tension adjusting mode, the tension adjusting operation may include the threaded connecting screw and the tension adjusting module.

[0109] The tension adjustment module may include a clamping block that selectively engages the tension adjustment link. The tension adjustment module may include a tension application unit coupled to the clamping block such that when a force perpendicular to a first longitudinal axis is applied, the clamping block engages the tension adjustment link to adjust the position of the tension adjustment link relative to the tensioning module.

[0110] The clamping block may include a threaded surface for engaging the tension adjusting linkage.

[0111] The clamping block may include an elastomer end module. The elastomer end module may be configured with a hardness tester grade of at least Shore D 60.

[0112] The tensioning module may include a locking module. The tensioning module can be further selectively operated in a locking mode, in which the locking module clamps the tension adjusting linkage in a static position relative to the tensioning module.

[0113] The connector may include a connecting rod receiving module for releasing excessive tension on the tensioning module. The connector may include a helical spring.

[0114] The tension adjustment module can also be configured to selectively engage the connecting rod, allowing the tension of the connecting rod and the tension adjustment rod to be adjusted independently.

[0115] The connector includes a threaded channel for receiving a connecting rod, such that the position of the connecting rod relative to the channel is adjustable. The tension adjustment module may also include a helical gear releasably coupled to the threaded rod.

[0116] For example, an adaptive fence support rail may include a first rail extending along a first longitudinal axis. The first rail may include a first hole at its distal end. The first rail may include multiple apertures distributed on a portion of the first rail substantially parallel to the first longitudinal axis. An adaptive fence support rail may include a second rail extending along a second longitudinal axis. The second rail may include a second aperture at its distal end. The second rail may include multiple apertures distributed on a portion of the second rail substantially parallel to the second longitudinal axis. The first and second rails may be configured such that when the first and second rails are aligned, the first and second longitudinal axes are substantially aligned, and at least one connecting member passes through one of the first and second apertures to connect the first rail to the second rail, and then connects the first and second rails to a field-adjustable support rail. The distal ends of the first rail and the distal ends of the second rail form opposing ends. The field-adjustable support rail may be configured to connect to a first post through the first aperture and to a second post through the second aperture, such that the field-adjustable support rail resists compressive forces toward each other caused by movement of the first and second posts.

[0117] At least one of the first and second holes can be configured to connect the corresponding end of the field-adjustable support rail to a clamp that is connected to the column in a predetermined orientation.

[0118] The first plurality of holes may include slots extending substantially parallel to the first longitudinal axis. The second plurality of holes may include slots extending substantially orthogonal to the second longitudinal axis.

[0119] At least one of the first and second guide rails may be defined substantially by an L-shaped cross-section. At least one of the first and second guide rails may be defined substantially by a closed cross-section. The closed cross-section may be substantially rectangular.

[0120] At least one of the first and second guide rails can be configured to be slidably assembled into the other of the first and second guide rails.

[0121] The adaptive fence support rail may include a connecting member substantially orthogonal to at least one of the first and second longitudinal axes. The connecting member may be configured to be releasably connected to a diagonally tensioned member.

[0122] Various implementations have been described. However, it should be understood that various modifications can be made. For example, advantageous results can be achieved by performing the described steps in a different order, by combining the components of the described system in a different manner, or by supplementing these components with other components. Therefore, other implementations are provided within the scope of the appended claims.

Claims

1. A column support clamp, comprising: The butterfly clamp includes: A rib receiving channel is configured to receive the first longitudinal rib of a fence post, wherein the fence post extends along a longitudinal axis; and... A protrusion extending from the corresponding proximal edge of the rib receiving channel and configured to align with the second longitudinal rib of the fence post, wherein the first and second longitudinal ribs intersect in a plane orthogonal to the longitudinal axis; Receiving fixture, including: The first wall includes a fastening hole configured to receive at least one stud extending from the surface of the second longitudinal rib; and, Two sidewalls extend from opposite edges of the first wall, and each sidewall includes a connection hole releasably connected to a transverse guide rail. When the butterfly clamp and the receiving clamp are joined together on either side of the first wall, the fastening hole engages at least one stud to prevent translation parallel to the longitudinal axis, and the rib receiving channel engages the first longitudinal rib to prevent rotation about the longitudinal axis.

2. The column support clamp according to claim 1, characterized in that, When the butterfly clamp and the receiving clamp are coupled together, the two sidewalls are configured to be releasably coupled to a plurality of side rails such that each of the plurality of side rails extends substantially orthogonally to the fence post.

3. The post support clamp according to claim 1, wherein the proximal edge of the rib receiving channel includes an offset bridge connecting the horizontal plane of the protrusion and the plane of the proximal edge, such that when the butterfly clamp and the receiving clamp are connected to the fence post, the offset bridge and the first wall of the receiving clamp form an adaptive space suitable for various shapes of the fence post.

4. The column support clamp according to claim 1 further includes a second receiving clamp connected to the receiving clamp.

5. The column support clamp of claim 1, wherein each of the two sidewalls extends approximately two-thirds of the distance from the respective proximal edge of the first wall.

6. The column support clamp of claim 1, wherein the two sidewalls include more than one pair of coaxially aligned coupling holes for releasable connection to the side rails.

7. A tensioning module, comprising: The lumen has a channel at its distal end with an aperture through which a threaded rod is slidably received, such that the threaded rod extends along a first longitudinal axis. The proximal connecting member can be coupled to a connecting rod extending along a second longitudinal axis, which is substantially parallel to the first longitudinal axis; The gear ring is concentric and at least partially threaded to the threaded rod, such that when the gear ring rotates, the threaded rod moves along the first longitudinal axis; Furthermore, the second gear coupled to the gear ring has a rotation axis perpendicular to the gear ring, wherein when the second gear rotates in the first rotation direction, the second gear causes the gear ring to rotate around the threaded rod, thereby changing the position of the threaded rod relative to the tensioning module.

8. The tensioning module according to claim 7, wherein the second gear includes a pinion.

9. The tensioning module according to claim 7, wherein the second gear comprises a worm gear.

10. The tensioning module according to claim 7 further includes a lever arm that causes the second gear to rotate when operated by the user.

11. The tensioning module of claim 10, wherein the lever arm includes a handle releasably coupled to the second gear.

12. The tensioning module of claim 7, wherein the gear ring is mounted to the housing via at least one rolling bearing.

13. The tensioning module of claim 7, wherein the connecting member includes a threaded channel that receives the connecting rod such that the position of the connecting rod relative to the channel is adjustable.

14. A tensioning module, comprising: A body including a lumen channel having an aperture at a distal end of the body and substantially extending through the body, wherein the channel can slidably receive a tension adjusting link such that the tension adjusting link extends along a first longitudinal axis; A connector at the proximal end of the main body, which can be connected to a connecting rod extending along a second longitudinal axis substantially parallel to the first longitudinal axis; and, The tension adjustment module engages the tension adjustment linkage with the tensioning module. The tension adjustment module performs the following operations: Sliding mode, wherein the channel allows the tension adjusting linkage to slide within the lumen along a first longitudinal axis; In the tension adjustment mode, the tension adjustment module performs a tension adjustment operation on the tension adjustment link, which changes the position of the tension adjustment link relative to the tensioning module, thereby adjusting the tension between the proximal end of the connecting rod and the distal end of the tension adjustment link.

15. The tensioning module according to claim 14, wherein the tension adjusting link comprises a threaded rod.

16. The tensioning module according to claim 15, wherein, The tension adjustment mode is a threaded mode, wherein the tension adjustment module engages with the screw thread in the channel.

17. The tensioning module according to claim 15, in tension adjustment mode, the tension adjustment operation includes a threaded coupling threaded rod and a tension adjustment module.

18. The tensioning module according to claim 14, wherein the tension adjustment module comprises: Clamping block engages with tension adjusting linkage; Additionally, a tension application unit is operatively connected to a clamping block such that when a force perpendicular to the first longitudinal axis is applied, the clamping block engages a tension adjusting link to adjust the position of the tension adjusting link relative to the tensioning module.

19. The tensioning module of claim 18, wherein the clamping block includes a threaded surface to form a threaded engagement with the tension adjusting link.

20. The tensioning module of claim 18, wherein the clamping block comprises an elastomeric terminal pad.

21. The tensioning module of claim 20, wherein the elastomer terminal pad is constructed to have a Shore D 60 hardness tester rating.

22. The tensioning module of claim 14 further includes a locking module, wherein the tensioning module also operates in a locking mode, in which the locking module clamps the tension adjusting link relative to the tensioning module in a static position.

23. The tensioning module of claim 14, wherein the connector includes a connecting rod receiving end module that can release excessive tension on the tensioning module.

24. The tensioning module of claim 14, wherein the coupling comprises a helical spring.

25. The tensioning module according to claim 14, wherein the tension adjusting module further engages the connecting rod, such that the tension of the connecting rod and the tension adjusting link can be adjusted independently.

26. The tensioning module of claim 14, wherein the coupling includes a threaded channel for receiving the connecting rod, such that the position of the connecting rod relative to the channel is adjustable.

27. The tensioning module of claim 15, wherein the tension adjustment module further comprises a helical gear releasably coupled to the threaded rod.

28. An adaptive fence support rail for use in combination with the column support clamp of claim 1, comprising: A first guide rail extends along a first longitudinal axis and includes: The first hole is located at the far end; A first plurality of orifices are located along the wall of the first guide rail, and these first plurality of orifices are distributed on a portion of the first guide rail that is substantially parallel to the first longitudinal axis. The second track extends along the second longitudinal axis and includes: The second hole is located at the far end; Second perforations are located along the wall of the second guide rail, and these second perforations are distributed on a portion of the second guide rail that is substantially parallel to the second longitudinal axis; in: The first and second rails are configured such that, when the first and second rails are aligned such that the first and second longitudinal axes are substantially aligned, at least one connecting member passes through at least one of the first and at least one of the second orifices to connect the first guide rail to the second guide rail, wherein the distal ends of the first and second guide rails form opposing ends. The on-site adjustable support rail is connected to the first fence post through the first hole and to the second fence post through the second hole, so that the on-site adjustable support rail can resist the pressure caused by the relative movement of the first fence post and the second fence post.

29. The adaptive fence support rail of claim 28, wherein at least one of the first orifice and the second orifice is configured to connect a corresponding end of the field-adjustable support rail to a support clamp, the support clamp being connected to the fence post in a predetermined orientation with respect to the fence post.

30. The adaptive fence support rail of claim 28, wherein the first aperture includes a slot extending substantially parallel to the first longitudinal axis, and the second aperture includes a slot extending substantially orthogonal to the second longitudinal axis.

31. The adaptive fence support rail of claim 28, wherein at least one of the first rail and the second rail is substantially composed of an L-shaped cross section.

32. The adaptive fence support rail of claim 28, wherein at least one of the first rail and the second rail is substantially composed of a closed cross section.

33. The adaptive fence support rail according to claim 32, wherein the closed cross-section is substantially rectangular.

34. The adaptive fence support rail of claim 28, wherein at least one of the first rail and the second rail is configured to be slidably assembled into the other of the first rail and the second rail.

35. The adaptive fence support rail of claim 28 further includes a connecting member extending substantially orthogonally from at least one of the first longitudinal axis and the second longitudinal axis, the connecting member being configured to be releasably connected to a diagonally tensioned member.

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