Ecological slope protection system with reinforcing mechanism

Abstract

The invention discloses an ecological slope protection system with a reinforcing mechanism, and relates to the technical field of ecological slope protection. Comprising a plurality of ecological frames, all the ecological frames are evenly distributed, and reinforcing units used for connecting the four adjacent ecological frames into a whole are arranged among the four adjacent ecological frames distributed in a rectangular shape; the reinforcing unit comprises a base, the base is arranged among the four adjacent ecological frames, four supporting columns are fixedly connected to the base, a positioning strip is arranged between every two adjacent supporting columns, deformation strips distributed at equal intervals are arranged on the positioning strips, a steel wire rope is erected on the deformation strip on the uppermost side, and the two ends of the steel wire rope are connected with an anchoring ball and a fixing ball respectively. The four adjacent ecological frames are connected through the steel wire ropes at the same time, fixing can be achieved without keeping the four ecological frames flat, in this way, the probability that the ecological frames are suspended can be reduced, then the stress of the steel wire ropes is reduced, the attaching effect of the ecological frames and the slope surface is improved, and the slope protection stability and protection efficiency are enhanced.

Description

Technical Field

[0001] This invention relates to the field of ecological slope protection technology, and in particular to an ecological slope protection system with a reinforcement mechanism. Background Technology

[0002] Ecological slope protection is a technology that integrates multiple disciplines such as engineering mechanics, soil science, ecology and botany. It utilizes the interaction between the root system of vegetation and the soil and rock mass to protect and reinforce the slope. The most common method at present is to use flat ecological frames for docking construction. That is, the ecological frames are connected by bolts at the diagonal corners to form an integral structure, so as to achieve the purpose of slope protection and providing vegetation growth.

[0003] However, in actual construction, due to factors such as terrain, construction techniques, and measurement errors, it is difficult to achieve absolute flatness on slopes. A flatness deviation of 20mm–30mm is typically permissible in engineering projects. This deviation makes it difficult for the eco-frames to align naturally on uneven slopes. To complete the bolt connection, workers need to lift the eco-frames for manual assembly. Even after initial connection, over long-term use, some frames gradually sink under gravity due to being suspended, causing the bolts and mating holes to bear continuous shear force or bending moment. Furthermore, the eco-frames cannot achieve a tight fit with the slope, which not only weakens the overall structural stability and protective performance but also easily leads to frame damage due to stress concentration, thus increasing the burden of later maintenance. Summary of the Invention

[0004] This invention provides an ecological slope protection system with a reinforcement mechanism to overcome the disadvantages of ecological frames being inconvenient to connect when installed on uneven slopes and having poor stability during use.

[0005] Technical Solution: An ecological slope protection system with a reinforcement mechanism, comprising: several ecological frames, each ecological frame having four rectangularly distributed through slots and positioning ball slots on its periphery, the through slots communicating with adjacent positioning ball slots, all ecological frames being evenly distributed, and a reinforcement unit for connecting the four adjacent ecological frames into a whole being provided between adjacent rectangularly distributed ecological frames; the reinforcement unit comprising: a base, the base being disposed between the four adjacent ecological frames, the base being fixed with four rectangularly distributed pillars, a positioning strip being provided between two adjacent pillars, the positioning strip being provided with equidistantly distributed deformation strips, the uppermost deformation strip being supported by a steel wire rope, the two ends of the steel wire rope being respectively connected to an anchor ball and a fixed ball, the fixed ball being used to embed into the adjacent positioning ball slots, and a power component for pulling and fixing the steel wire rope being provided on the base.

[0006] Furthermore, the power assembly includes: a bracket, a threaded rod, a slider, four extrusion members, four limiting strips, and four limiting torsion plates. The bracket is fixedly connected to the four adjacent pillars. The bracket and the base are rotatably connected to the threaded rod. The threaded rod is threadedly connected to the slider. The slider is slidably connected to the pillars. The extrusion member is located between two adjacent pillars and is slidably connected to both adjacent pillars. The limiting strips and the limiting torsion plates are inserted into adjacent extrusion members. The wire rope passes through the gap between the extrusion member and the adjacent limiting strip. The slider is used to drive the extrusion member to move through the limiting torsion plates. The extrusion member and the adjacent limiting strip are used to jointly pull the wire rope through the anchor ball. On the side of the extrusion member away from the slider, from bottom to top, there is an extrusion slope, a positioning part, and a limiting part. The extrusion slope is used to extrude the adjacent anchor ball towards the adjacent deformation strip. The limiting part is used to limit the extreme positions when the adjacent anchor ball moves relative to the adjacent extrusion member.

[0007] Furthermore, the force required for the slider to crush the limiting torsion plate is greater than the force required for the anchor ball to crush the deformation strip.

[0008] Furthermore, the diameter of the anchor ball is greater than the length of the deformation strip.

[0009] Furthermore, the support post is fixedly connected to a fixing bracket at a position away from the adjacent threaded rod, the fixing bracket being used to abut against the adjacent eco-frame.

[0010] Furthermore, two adjacent support columns are slidably connected by a sliding member, and an overlapping strip is fixedly connected to the lower side of the sliding member. The wire rope is laid on the adjacent overlapping strip. A limiting arc member is slidably connected inside the sliding member. The positioning strip is provided with equidistantly distributed limiting holes. The limiting arc member is used to lock the position of the sliding member and the adjacent positioning strip through the limiting holes. The wire rope is used to squeeze the adjacent limiting arc member. A spring is fixedly connected between the limiting arc member and the adjacent sliding member. The force required for the anchor ball to squeeze and destroy the limiting strip is greater than the force required for the wire rope to squeeze and destroy the deformation strip.

[0011] Furthermore, the cross-section of the middle part of the overlapping strip is arc-shaped.

[0012] Furthermore, the support column is detachably connected to the adjacent positioning strip, and the upper sides of two adjacent support columns are detachably connected to an abutment plate, which abuts against the adjacent positioning strip.

[0013] Furthermore, the upper part of the slider is provided with four rectangularly distributed reset ramps, which are used to guide the slider over the limiting torsion plate.

[0014] Furthermore, the upper part of the support column is provided with a stepped surface, the farthest distance between adjacent stepped surfaces on two adjacent support columns is equal to the length of the extrusion member, and the maximum distance between the base and the lower side of the slider is greater than the distance between the base and the adjacent stepped surface.

[0015] The beneficial effects of adopting the above technical solution are as follows: the present invention relies on steel wire rope to connect four adjacent ecological frames at the same time, and can achieve fixation without keeping the four ecological frames flat. This can reduce the probability of the ecological frames being suspended, thereby reducing the stress on the steel wire rope, and improving the fit between the ecological frames and the slope, thus enhancing the stability and protection effectiveness of the slope.

[0016] The direction of the wire rope is sensed by the position of the limiting arc component, and the position of the wire rope is locked when it is perpendicular to the side of the ecological frame. This keeps the suspended section of the wire rope as short as possible, thereby reducing the impact of external factors on the stability of the ecological frame.

[0017] By integrating the parts required to replace the ecological frame between four adjacent ecological frames, it is possible to replace a damaged ecological frame without damaging the turf inside the ecological frame, thereby reducing the impact of replacing the ecological frame on the slope protection effect. Attached Figure Description

[0018] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a three-dimensional structural diagram of the ecological frame and fixing frame of the present invention; Figure 3 This is a three-dimensional structural diagram of the base and support column of the present invention; Figure 4 This is a three-dimensional structural diagram of the support column and positioning strip of the present invention; Figure 5 This is a three-dimensional structural diagram of the anchor ball and extrusion component of the present invention; Figure 6 This is an exploded view of the extrusion component and the sliding component of the present invention; Figure 7 This is a three-dimensional structural cross-sectional view of the positioning strip and extrusion component of the present invention; Figure 8 This is a three-dimensional structural diagram of the support column and extrusion component of the present invention.

[0019] In the attached diagram, the following labels are used: 100-Ecological frame, 110-Through groove, 120-Positioning ball groove, 1-Base, 2-Support column, 201-Step surface, 3-Bracket, 4-Threaded rod, 5-Slider, 501-Reset inclined surface, 6-Positioning strip, 601-Deformation strip, 7-Wire rope, 8-Anchor ball, 9-Fixing ball, 10-Extrusion part, 101-Extrusion inclined surface, 102-Positioning part, 103-Limiting part, 11-Limiting strip, 12-Limiting torsion plate, 13-Fixing frame, 14-Sliding part, 15-Overlap strip, 16-Limiting arc part, 161-Limiting hole, 17-Spring, 18-Abutment plate. Detailed Implementation

[0020] To make the above features and advantages of the present invention more readily understood, specific embodiments are described below in conjunction with the accompanying drawings, but the present invention is not limited thereto.

[0021] Example 1 This embodiment provides an ecological slope protection system with a reinforcement mechanism to solve the problems of inconvenient docking when installing on uneven slopes and poor stability during use of currently used ecological frames.

[0022] See Figure 1 and Figure 2 An ecological slope protection system with a reinforcement mechanism includes: several ecological frames 100, each of which has a through groove 110 and a positioning ball groove 120 at its four opposite corners. The lower part of the through groove 110 is connected to the adjacent positioning ball groove 120. All the ecological frames 100 are evenly distributed. A reinforcement unit is provided between four adjacent ecological frames 100 that are distributed in a rectangular pattern to connect the four adjacent ecological frames 100 into a whole.

[0023] See Figures 2 to 5 The reinforcement unit includes: a base 1, which is set between four adjacent ecological frames 100. The base 1 is fixed with four rectangularly distributed pillars 2. A positioning strip 6 is set between two adjacent pillars 2. The positioning strip 6 is provided with equally spaced deformation strips 601. Both the deformation strips 601 and the positioning strips 6 are made of pure aluminum. The uppermost deformation strip 601 is supported by a steel wire rope 7. The two ends of the steel wire rope 7 are respectively connected to an anchor ball 8 and a fixed ball 9. The fixed ball 9 is used to embed into the adjacent positioning ball groove 120. The base 1 is provided with a power component for pulling and fixing the steel wire rope 7.

[0024] The above setup enables the simultaneous connection of four adjacent ecological frames 100 using steel wire ropes 7, achieving fixation without requiring the four ecological frames 100 to be flat. This reduces the probability of the ecological frames 100 being suspended, thereby reducing the stress on the steel wire ropes 7 and improving the fit between the ecological frames 100 and the slope surface, thus enhancing the stability and protective effectiveness of the slope.

[0025] It should be noted that in this embodiment, the arrangement relationship between the support column 2 and the adjacent positioning strip 6 can be regarded as a fixed connection.

[0026] See Figures 4 to 7 The power assembly includes: a bracket 3, a threaded rod 4, a slider 5, four extrusion parts 10, four limiting strips 11, and four limiting torsion plates 12. The upper parts of the four pillars 2 are all fixedly connected to the bracket 3. The bracket 3 and the base 1 are rotatably connected to the threaded rod 4. The threaded rod 4 is threadedly connected to the slider 5, and the slider 5 is slidably connected to the pillar 2. The extrusion part 10 is located between two adjacent pillars 2 and is slidably connected to both adjacent pillars 2. The limiting strips 11 and the limiting torsion plates 12 are inserted into adjacent extrusion parts 10. The steel wire rope 7 passes through the gap between the extrusion part 10 and the adjacent limiting strip 11 to limit the anchor ball 8. The limiting strip 11 is made of pure aluminum and is used to allow the limiting strip 11 to bend under the extrusion of the anchor ball 8 to release the limitation on the anchor ball 8. The slider 5 is used to drive the extrusion part 10 to move through the limiting torsion plates 12. The two sides of 2 are connected to the adjacent extrusion member 10 by aluminum rectangular strips, so that when the limiting torsion plate 12 is pushed by the slider 5 and reaches the deformation threshold of the aluminum rectangular strip, the limiting torsion plate 12 can be flipped; the extrusion member 10 and the adjacent limiting strip 11 are used to jointly pull the steel wire rope 7 through the anchor ball 8. The side of the extrusion member 10 away from the slider 5 is provided with an extrusion inclined surface 101, a positioning part 102 and a limiting part 103 from bottom to top. The extrusion inclined surface 101 is used to extrude the adjacent anchor ball 8 towards the adjacent deformation strip 601. The limiting part 103 is used to limit the extreme position when the adjacent anchor ball 8 moves relative to the adjacent extrusion member 10; the force required for the slider 5 to crush the limiting torsion plate 12 is greater than the force required for the anchor ball 8 to crush the deformation strip 601. The above arrangement is used to ensure that the positioning part 102 can contact the adjacent anchor ball 8.

[0027] The above setup enables the positioning strip 6 to deform by pressing the anchor ball 8 with the extrusion member 10, thereby embedding the anchor ball 8 into the positioning strip 6 for fixation. This enhances the flexibility of the length of the wire rope 7 when fixing the ecological frame 100. In addition, it can simultaneously tighten four wire ropes 7 and fix four adjacent ecological frames 100, improving the convenience of using this device.

[0028] See Figure 5 The diameter of the anchor ball 8 is greater than the length of the deformation strip 601. This is so that when the anchor ball 8 is compressed by the compression slope 101, it can not only compress and deform the adjacent deformation strip 601, but also cause the positioning strip 6 to undergo local deformation. In this way, the gap formed between the adjacent deformation strips 601 is used to restrict the position of the anchor ball 8, and the deformation of the positioning strip 6 is used to enhance the anchoring force of the anchor ball 8, thereby enhancing the stability of the wire rope 7 during the fixation of the ecological frame 100.

[0029] It should be noted that in this embodiment, the wire rope 7 is always laid on the uppermost deformation strip 601.

[0030] See Figure 2 and Figure 3 A fixing frame 13 is fixed to the support column 2 at a position away from the adjacent threaded rod 4. The fixing frame 13 is used to abut against the adjacent ecological frame 100 so as to keep the relative position between the base 1 and the other ecological frames 100 stable when one of the four ecological frames 100 adjacent to the base 1 settles. In this way, the traction effect of the wire rope 7 between the base 1 and the other ecological frames 100 is maintained, thereby enhancing the stability of the connection between the wire rope 7 and the ecological frame 100.

[0031] Slope protection installation process: The ecological frame 100 is evenly laid on the slope surface. Then, the base 1 is placed in the quadrangular prism space enclosed by four adjacent ecological frames 100. Four steel wire ropes 7 are passed from top to bottom through the through groove 110 until the steel wire ropes 7 enter the adjacent positioning ball groove 120. At this time, the worker uses a tool to rotate the threaded rod 4. The threaded rod 4 moves down through the threaded transmission slider 5. The slider 5 drives the four extrusion parts 10 to move down through the four limiting torsion plates 12 (the following description takes a set of extrusion parts 10, limiting strips 11 and limiting torsion plates 12 as an example). The extrusion parts 10 drive the anchor ball 8 to move down through the limiting strips 11. The anchor ball 8 pulls the steel wire rope 7, so that the steel wire rope 7 pulls the fixed ball 9 into the corresponding positioning ball groove 120.

[0032] When the fixed ball 9 enters the corresponding positioning ball groove 120, both the wire rope 7 and the anchor ball 8 stop moving. As the extruder 10 continues to move downward, the limiting strip 11 is deformed by the anchor ball 8 until the anchor ball 8 passes between the limiting strip 11 and the extruder 10. At this time, the limiting strip 11 releases its restriction on the anchor ball 8, and the anchor ball 8 enters between the extrusion slope 101 and the corresponding deformation strip 601. As the extruder 10 continues to move downward, the extrusion slope 101 presses the anchor ball 8 against the corresponding deformation strip 601, causing the deformation strip 601 and the positioning strip 6 to deform sequentially until the anchor ball 8 contacts the positioning part 102. Then, the anchor ball 8 stops pressing the deformation strip 601 and the positioning strip 6, thus embedding the anchor ball 8 into the positioning strip 6 and completing the fixation of the anchor ball 8.

[0033] After the anchor ball 8 contacts the positioning part 102, as the extrusion part 10 continues to move downward, the distance between the anchor ball 8 and the limiting part 103 gradually decreases until they finally contact each other. At this point, the extrusion part 10 is supported by the anchor ball 8 and cannot move downward further. When the slider 5 continues to move downward, the slider 5 presses the limiting torsion plate 12, causing the connection between the limiting torsion plate 12 and the extrusion part 10 to undergo torsional deformation. This prevents the slider 5 from continuing to drive the extrusion part 10 to move, thus completing the fixation of a single eco-frame 100. As the slider 5 continues to move downward, the four extrusion parts 10 lose their transmission relationship with the slider 5 in sequence, thus completing the fixation of the four eco-frames 100.

[0034] Example 2 This embodiment is a further optimization based on Embodiment 1 to enhance the stability of the ecoframe 100 during use.

[0035] See Figures 3 to 7 Two adjacent support pillars 2 are slidably connected by a sliding member 14. An overlapping strip 15 is fixedly connected to the lower side of the sliding member 14. The cross-section of the overlapping strip 15 is arc-shaped, which is used for the steel wire rope 7 to be laid on it and to reduce the friction when the steel wire rope 7 slides. A limiting arc member 16 is slidably connected inside the sliding member 14. The limiting arc member 16 is composed of four arc-shaped strips and a rectangular plate. The rotation axes of the four arc-shaped strips are collinear when sliding inside the sliding member 14. The positioning strip 6 is provided with equidistant limiting holes 161. The limiting arc member 16 is used to lock the position of the sliding member 14 and the adjacent positioning strip 6 through the limiting holes 161. The steel wire rope 7 is used to squeeze the adjacent limiting arc member 16. A spring 17 is fixedly connected between the limiting arc member 16 and the adjacent sliding member 14. The force required for the anchor ball 8 to squeeze and destroy the limiting strip 11 is greater than the force required for the steel wire rope 7 to squeeze and destroy the deformation strip 601.

[0036] The above settings enable the direction of the wire rope 7 to be sensed by the position of the limiting arc member 16, and the position of the wire rope 7 to be locked when the wire rope 7 is perpendicular to the side of the ecological frame 100. This keeps the suspended section of the wire rope 7 as short as possible, thereby reducing the impact of external factors on the stability of the ecological frame 100.

[0037] It should be noted that in this embodiment, the wire rope 7 can break the deformation strip 601 when it is pulled, that is, the deformation strip 601 erected by the wire rope 7 can change.

[0038] Process: As slider 5 gradually moves downward and fixed ball 9 enters positioning ball groove 120, slider 5 continues to pull wire rope 7 through pressing member 10 and anchor ball 8, causing the pressing force of wire rope 7 on the uppermost deformation strip 601 to gradually increase until the pressing force exceeds the threshold of deformation strip 601 breaking. At this point, deformation strip 601 breaks, and wire rope 7 crosses the first upper deformation strip 601 and contacts the second upper deformation strip 601. Simultaneously, as wire rope 7 moves, it drives sliding member 14 downward through overlapping strip 15, and the clamp formed between wire rope 7 and the lower side of sliding member 14... As the slider 5 continues to move downward, the above steps are repeated, and the angle formed by the wire rope 7 and the lower side of the sliding member 14 gradually decreases. The wire rope 7 pushes the limiting arc member 16 to move and compresses the spring 17 until the angle formed by the wire rope 7 and the lower side of the sliding member 14 is zero. At this time, the limiting arc member 16 enters the corresponding limiting hole 161 and locks the relative position of the sliding member 14 and the positioning bar 6. At this time, the suspended section of the wire rope 7 (here, the suspended section refers to the part of the wire rope 7 located on the side of the positioning bar 6 away from the threaded rod 4) is parallel to the slope.

[0039] With the steel wire rope 7 in the aforementioned state, the positioning strip 6 is fixed to each individual ecological frame 100 by the taut steel wire rope 7 and the fixing frame 13. In this way, in a group of four ecological frames 100, the traction force of the steel wire rope 7 on the ecological frame 100 will not decrease due to factors such as ground subsidence. At the same time, if the traction force of a single steel wire rope 7 on the ecological frame 100 decreases, the other three ecological frames 100 can still remain stable under the traction force of the adjacent steel wire rope 7.

[0040] Example 3 This embodiment is a further optimization based on embodiment 2, so as to facilitate replacement after the ecological frame 100 is damaged.

[0041] When the currently used ecological frame slope protection system suffers local damage, it needs to be replaced in order to maintain the overall structural strength of the slope protection system. However, since the current ecological frames are connected by bolts, the soil layer near the bolt connection needs to be removed before the bolts can be removed. This will damage the turf on the soil surface and affect the slope protection effect.

[0042] See Figures 3 to 5 The support column 2 is detachably connected to the adjacent positioning strip 6. The upper sides of the two adjacent support columns 2 are detachably connected to the abutment plate 18, which abuts against the adjacent positioning strip 6, and the position of the positioning strip 6 is kept unchanged by the abutment plate 18.

[0043] The above setup enables the integration of the parts required to replace the ecological frame 100 between four adjacent ecological frames 100. This way, when a local ecological frame 100 is damaged and needs to be replaced, the turf inside the ecological frame 100 does not need to be destroyed, thereby reducing the impact of replacing the ecological frame 100 on the slope protection effect.

[0044] See Figure 5 The upper part of the slider 5 is provided with four rectangularly distributed reset inclined surfaces 501, which are used to make the slider 5 pass over the corresponding limit torsion plate 12 from bottom to top.

[0045] See Figure 8 The upper part of the support column 2 is provided with a stepped surface 201. The farthest distance between adjacent stepped surfaces 201 on two adjacent support columns 2 is equal to the length of the extrusion part 10. The maximum distance between the base 1 and the lower side of the slider 5 is greater than the distance between the base 1 and the adjacent stepped surface 201. This is to enable the extrusion part 10 to be disassembled and assembled.

[0046] Disassembly and assembly process: Use a tool to rotate the threaded rod 4 to move the slider 5 upward to the uppermost side. Then, use a tool to remove the abutment plate 18 corresponding to the damaged eco-frame 100. Use a tool to pull out the positioning strip 6 upward. The positioning strip 6 moves the wire rope 7, the pressing part 10, and the sliding part 14 out together. Then, remove the damaged eco-frame 100 and replace it with a new eco-frame 100. Install the new positioning strip 6, wire rope 7, pressing part 10, and sliding part 14 between the corresponding two support pillars 2. Then, repeat the steps of embodiment 1 to drive the slider 5 downward, tighten the wire rope 7, and complete the fixation.

[0047] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention.

Claims

1. An ecological slope protection system with reinforcing mechanism, characterized in that comprising: a plurality of ecological frames (100), the ecological frames (100) are provided with four through-slots (110) and a positioning ball slot (120) in a rectangular distribution on the circumferential side, the through-slots (110) are communicated with the adjacent positioning ball slot (120), all the ecological frames (100) are uniformly distributed, and a reinforcing unit for connecting four adjacent ecological frames (100) as a whole is arranged between the four adjacent ecological frames (100) in a rectangular distribution; the reinforcing unit comprises a base (1) arranged between the four adjacent ecological frames (100), the base (1) is fixedly connected with four support columns (2) in a rectangular distribution, a positioning strip (6) is arranged between two adjacent support columns (2), the positioning strip (6) is provided with deformation strips (601) in an equidistant distribution, the uppermost deformation strip (601) is arranged with a steel wire rope (7), and two ends of the steel wire rope (7) are respectively connected with an anchor ball (8) and a fixed ball (9), the fixed ball (9) is used for embedding into the adjacent positioning ball slot (120), and a power assembly for pulling and fixing the steel wire rope (7) is arranged on the base (1).

2. The ecological revetment system with reinforcement mechanism according to claim 1, characterized in that, the power assembly comprises a bracket (3), a threaded rod (4), a sliding block (5), four extrusion pieces (10), four limiting strips (11) and four limiting torsion plates (12), the bracket (3) is fixedly connected with the four adjacent support columns (2), the bracket (3) and the base (1) are rotationally connected with the threaded rod (4), the threaded rod (4) is threadedly connected with the sliding block (5), the sliding block (5) is slidingly connected with the support column (2), the extrusion piece (10) is located between and slidingly connected with the two adjacent support columns (2), the limiting strip (11) and the limiting torsion plate (12) are inserted with the adjacent extrusion piece (10), the steel wire rope (7) passes through the gap between the extrusion piece (10) and the adjacent limiting strip (11), the sliding block (5) is used for driving the extrusion piece (10) to move through the limiting torsion plate (12), the extrusion piece (10) and the adjacent limiting strip (11) are used for jointly pulling the steel wire rope (7) through the anchor ball (8), and the side of the extrusion piece (10) away from the sliding block (5) is sequentially provided with an extrusion inclined surface (101), a positioning portion (102) and a limiting portion (103) from bottom to top, the extrusion inclined surface (101) is used for extruding the adjacent anchor ball (8) to the adjacent deformation strip (601), and the limiting portion (103) is used for limiting the limit position of the adjacent anchor ball (8) relative to the adjacent extrusion piece (10) when moving. The force required for the sliding block (5) to extrude and damage the limiting torsion plate (12) is greater than the force required for the anchor ball (8) to extrude and damage the deformation strip (601).

3. The ecological revetment system with reinforcement mechanism according to claim 2, characterized in that, The diameter of the anchor ball (8) is greater than the length of the deformation strip (601).

4. The ecological revetment system with reinforcement mechanism according to claim 2, characterized in that, ​ 5. The ecological revetment system with reinforcement mechanism according to claim 2, characterized in that, The support post (2) is fixed with a fixing frame (13) away from the position of the adjacent threaded rod (4), and the fixing frame (13) is used to abut with the adjacent ecological frame (100).

6. The ecological revetment system with reinforcement mechanism according to claim 5, characterized in that, Two adjacent support posts (2) are commonly connected with a sliding piece (14), the lower side of the sliding piece (14) is fixed with a lap strip (15), the steel wire rope (7) is arranged on the adjacent lap strip (15), the sliding piece (14) is limitedly connected with a limiting arc piece (16) in the sliding piece (14), the positioning strip (6) is provided with equidistantly distributed limiting holes (161), the limiting arc piece (16) is used to lock the position of the sliding piece (14) and the adjacent positioning strip (6) through the limiting holes (161), the steel wire rope (7) is used to press the adjacent limiting arc piece (16), the limiting arc piece (16) and the adjacent sliding piece (14) are fixed with a spring (17), and the force required for the anchoring ball (8) to press and damage the limiting strip (11) is greater than the force required for the steel wire rope (7) to press and damage the deformation strip (601).

7. An ecological revetment system with reinforcement means according to claim 6, characterized in that, The section of the middle part of the lap strip (15) is arc-shaped.

8. The ecological revetment system with reinforcement mechanism according to claim 6, characterized in that, The support post (2) is detachably connected with the adjacent positioning strip (6), the upper sides of two adjacent support posts (2) are commonly detachably connected with an abutting plate (18), and the abutting plate (18) abuts with the adjacent positioning strip (6).

9. The ecological revetment system with reinforcement mechanism according to claim 2, characterized in that, The upper part of the sliding block (5) is provided with four reset inclined surfaces (501) distributed in a rectangular shape, and the reset inclined surfaces (501) are used to guide the sliding block (5) to pass the limiting torsion plate (12).

10. The ecological revetment system with reinforcement mechanism according to claim 9, characterized in that, The upper part of the support post (2) is provided with a stepped surface (201), the farthest distance between the adjacent stepped surfaces (201) of two adjacent support posts (2) is equal to the length of the pressing piece (10), and the maximum distance between the base (1) and the lower side of the sliding block (5) is greater than the distance between the base (1) and the adjacent stepped surface (201).

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