Ridge-shaped branch sand barrier laying equipment

Abstract

The present invention discloses a ridge-shaped branch sand barrier laying device, which effectively solves the problem of lack of insertion depth of branch sand barriers. It includes a frame, the surface of the frame is provided with a transmission mechanism, the transmission mechanism includes a conveyor belt, a conveyor wheel and a conveyor bar, the upper surface of the conveyor belt is rotatably provided with a conveyor bar, a rotating spring is provided between the conveyor belt and the conveyor bar, and a docking mechanism is provided inside the frame, the docking mechanism includes a docking rod, a docking block, a first column and a second column, the docking block is rotatably provided on the surface of the docking rod, and an arc spring is provided on one side of the docking block. The docking mechanism provided in this scheme can make the conveyor bar rotate a certain angle, and the stored force is released to achieve the effect of pushing the branches to be released, so that a part of the branches inserted into the sand have an insertion force, thereby ensuring the stability of the ridge-shaped branch sand barrier, and the docking block resets and hits the docking rod to cause vibration to the position.

Description

Technical Field

[0001] The present invention relates to the technical field of branch sand barriers, in particular to a ridge-shaped branch sand barrier laying device. Background Art

[0002] Branch sand barriers are obstacle facilities formed by branches, used to prevent and control wind and sand disasters. Their core function is to increase the surface roughness and weaken the near-surface wind speed, thereby changing the wind and sand flow structure and inhibiting the movement of sand particles. There are two ways to lay branch sand barriers. One is to vertically insert branches into the sand, forming a vertical sand barrier on the main field. This type of laying is more cumbersome. The other is to cut branches into shorter sections and pile them up into a ridge-shaped branch sand barrier in the form of a drop. This type of laying is simpler. However, the existing ridge-shaped branch sand barrier lacks insertion depth after laying, resulting in an unstable branch sand barrier. Moreover, the ground is flat and piled up, making it easy to be blown away by natural wind. Summary of the Invention

[0003] To this end, the technical problem to be solved by the present invention is to provide a ridge-shaped branch sand barrier laying equipment that can rotate the conveyor bar to a certain angle, and release the stored force to achieve the effect of pushing the branches to be released, so that a part of the branches inserted into the sand have insertion force, thereby ensuring the stability of the ridge-shaped branch sand barrier.

[0004] In order to solve the above technical problems, the present invention provides the following technical solutions:

[0005] It includes a frame, the surface of the frame is provided with a transmission mechanism, the transmission mechanism includes a conveyor belt, a conveyor wheel and a conveyor bar, the upper surface of the conveyor belt is rotatably provided with a conveyor bar, a rotation spring is provided between the conveyor belt and the conveyor bar, the interior of the frame is provided with a docking mechanism, the docking mechanism includes a docking rod, a docking block, a first column and a second column, the docking block is rotatably provided on the surface of the docking rod, an arc spring is provided on one side of the docking block, a docking column is slidably provided on one side of the conveyor bar, a regulating valve is rotatably provided inside the conveyor bar, a docking column is overlapped on one side of the regulating valve, a slider is slidably provided on the upper surface of the docking column, and an internal bar is rotatably provided inside the conveyor bar.

[0006] The technical solution of the present invention achieves the following beneficial technical effects:

[0007] The docking mechanism provided in this scheme can make the conveyor bar rotate a certain angle, and the accumulated force is released to achieve the effect of pushing the branches to be released, so that a part of the branches inserted into the sand have insertion force, ensuring the stability of the ridge-shaped branch sand barrier. The docking block resets and hits the docking rod to cause vibration to the position, which is convenient for the branches to fall on the frame, and can make the branches on the upper surface of the frame evenly distributed. The docking block can dock with the inside of the conveyor bar, so that the inside of the conveyor bar can spray gas, blow away part of the sand at the falling position, and make the blown-away part have a certain degree of depression. The docking column can make the conveyor bar discharge a small amount of liquid, so that the dust-raising part is dust-reduced, and at the same time make the branch surface moist, and can add water to the sand at the branch part. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] Figure 1 Schematic diagram of the frame structure of the present invention;

[0009] Figure 2 A three-dimensional schematic diagram of the frame of the present invention;

[0010] Figure 3 A schematic partial cross-sectional view of a conveyor belt according to the present invention;

[0011] Figure 4 Partial three-dimensional schematic diagram of the conveyor belt of the present invention

[0012] Figure 5 Schematic diagram of a partial cut of the conveyor strip of the present invention;

[0013] Figure 6 Schematic cross-sectional view of the conveyor strip of the present invention.

[0014] The reference numerals in the figure are as follows: 1. frame; 2. conveyor belt; 3. conveyor wheel; 4. conveyor bar; 5. rotating spring; 6. docking rod; 7. docking block; 8. column No. 1; 9. column No. 2; 10. arc spring; 11. regulating valve; 12. slider; 13. internal bar; 14. extending spring; 15. fixing frame; 16. notch; 17. supporting spring; 18. spring No. 1; 19. side block; 20. ejection port; 21. corresponding channel; 22. long mouth; 23. supply pipe; 24. valve No. 1; 25. valve No. 2; 26. connecting channel; 27. docking pipe; 28. internal sheet; 29. ​​docking column. DETAILED DESCRIPTION

[0015] This embodiment is as shown in the attached specification. Figure 1-2 As shown in the instruction manual, Figure 1 For the conveying direction of the branches in this scheme, the frame 1 is installed at the rear of the vehicle body, which is a crawler tractor. There is a branch storage bucket on the top of the vehicle body. The branches of different lengths are placed on the storage bucket. There are N sets of rotating wheels in the storage bucket, as shown in the attached manual. Figure 1As shown in the figure, there are horizontally arranged wheels above the frame 1, and these three wheels drive the branches to be transported toward the middle of the frame 1, so that they fall into the middle of the frame 1. The frame 1 of this scheme has two symmetrical transmission mechanisms, as shown in the attached manual. Figure 2 As shown, the gap between the two transmission mechanisms is very small. The upper surface of the left conveyor belt 2 runs along the left side, and the upper surface of the right conveyor belt 2 runs along the right side. In this way, the fallen branches will be transported along both sides of the frame 1 and fall to the ground. Since they are more likely to accumulate in a cone shape during the falling process (in the existing normal distribution experiment, the accumulation shape is mostly cone-shaped. This solution uses this shape to replace the sand barrier in the existing technology to play a role in sand fixation);

[0016] As the instruction manual Figure 3 As shown in the figure, the transmission mechanism is shown. The transmission mechanism is a conveyor belt 2 in the prior art. A conveyor wheel 3 is provided for the rotation of the frame 1. The conveyor belt 2 is overlapped on the conveyor wheel 3. In order to make the conveyor belt 2 more stable, a tooth groove overlapped on the conveyor wheel 3 is provided on the inner side of the conveyor belt 2. The shape of the conveyor wheel 3 is a gear shape, as shown in the attached manual. Figure 3 As shown, in order to prevent this structure from affecting the instructions attached Figure 3 The tooth groove shape is not shown because it is not visible. The tooth groove shape is the tooth groove shape of the existing technology that cooperates with the spur gear. The distance between each adjacent tooth groove is consistent, and it is inserted and connected with the conveying wheel 3 to achieve the effect of the conveying wheel 3 rotating the conveyor belt 2. Figure 3 Only a part of the conveyor belt 2 is shown. In fact, the shape of the conveyor belt 2 is a sports track shape, with two semicircles, and the two semicircles are separated and connected by a straight line. Figure 3 The other semicircle and straight line are hidden. Please refer to the attached manual for their shapes. Figure 2 The conveyor belt 2 has a certain degree of flexibility. A motor needs to be installed on one side of a conveyor wheel 3 to rotate the conveyor wheel 3. Since the motor belongs to the existing technology, this solution does not display the motor. The motor used in this solution is a servo motor with a self-locking function.

[0017] A suitable circular hole is opened on the conveyor belt 2, and a conveying bar 4 is rotatably set on the circular hole. In order to ensure the stability of the conveying bar 4, a metal column can be set on the circular hole. The conveying bar 4 is sleeved on the metal column to ensure the stability of the conveying bar 4. This is just one of the methods. This solution hides this stabilization method and does not show the metal column. In fact, the metal column is stable. The conveying bar 4 is rotatably set on the conveyor belt 2 and has a rotating spring 5 for torsion reset. In the absence of external force, the conveying bar 4 maintains the front and rear direction. In the case of external force, the conveying bar 4 will rotate to a certain angle, such as Figure 2As shown, this method of applying external force is to provide a docking mechanism around one of the conveying wheels 3;

[0018] The docking mechanism is the core of this solution, which can make the conveying bar 4 produce multiple groups of effects. First, it can make the conveying bar 4 rotate a certain angle, and release the stored force to achieve the effect of pushing the branches to be released, so that some of the branches inserted into the sand have a certain insertion force, ensuring the stability of the ridge-shaped branch sand barrier; second, the docking block 7 hits the docking rod 6 to vibrate the position, which is convenient for the branches to fall on the frame 1 and can make the branches on the upper surface of the frame 1 evenly distributed; third, it can dock with the inside of the conveying bar 4 so that the conveying bar 4 can spray gas to blow away part of the sand at the falling position, so that the blown-away part has a certain degree of depression; fourth, it can make the conveying bar 4 discharge a small amount of liquid to reduce dust at the dust-raising part, while making the branch surface moist and adding water to the sand at the branch part;

[0019] According to the introduction of the previous paragraph, the four effects are introduced one by one. First, because the docking block 7 is rotatably set on the docking rod 6, the docking rod 6 is integrally set on the frame 1 (the docking rod 6 extends to one side and is fixed to the frame 1), so the docking rod 6 is stationary. The cross section of the docking rod 6 shown in this scheme is circular. In fact, the cross section of the docking rod 6 is elliptical. Because the docking block 7 rotates on the docking rod 6, the shape of the docking block 7 in contact with the docking rod 6 is also elliptical, which can ensure that the docking block 7 can ensure that the docking block 7 can be attached to the manual. Figure 3 The docking block 7 is rotated on the surface of the display to achieve the effect of limited rotation. An arc spring 10 is provided under the docking block 7. The arc spring 10 ensures that the docking block 7 in rotation has a certain supporting elastic force, and the rotation angle of the docking block 7 on the docking rod 6 is limited (this solution does not limit the position, that is, the release position of the docking block 7 can be designed to be more optimized, and the release position of the docking block 7 can be optimized according to the position where the branch falls). After the docking block 7 rotates clockwise at a certain angle, it cannot continue to rotate. The structure extending above the docking rod 6 blocks its continued rotation under the docking block 7. As the conveying wheel 3 of this solution rotates clockwise (this paragraph refers to the appendix of the instruction manual Figure 3 ) makes the conveyor belt 2 run clockwise, and the conveyor bar 4 also runs clockwise, as shown in the attached manual. Figure 4 As shown, since one side of the docking block 7 is rotated with a No. 1 column 8, the left side of the No. 1 column 8 is the rotation center, and the rotation side of the No. 1 column 8 and the No. 2 column 9 are both provided with a torsion spring. Figure 4 The perspective in the figure can only show the torsion spring structure of the second column 9. Due to the planing surface, the torsion spring structure of the first column 8 cannot be shown. However, the rotation structure and torsion spring of the first column 8 and the second column 9 are the same, as shown in the attached manual. Figure 4 As shown in the instruction manual, Figure 4Equivalent to the instruction manual Figure 3 The three-dimensional version of the present invention, the rotation direction of the first column 8 and the second column 9 can all be rotated clockwise. Since the torsion springs on the first column 8 and the second column 9 are the maximum elastic springs of this scheme, that is, the torsion springs on the first column 8 and the second column 9 can be twisted only when they cannot pass. The figure happens to be when the docking block 7 cannot move downward, and the conveying bar 4 has to continue to operate. At this time, the first column 8 and the second column 9 will rotate, achieving the effect of the conveying bar 4 passing over the docking block 7. Since the rotation spring 5 has been twisted at this time, without the external force of the second column 9, the rotation spring 5 will rebound quickly, applying a release force to the branch on one side. Since this scheme is sand fixation, the scene is sandy, so that the branches with their heads downward (several messy branches with a certain degree of head contact with the sand) have a certain force when inserted into the sand, which is converted into a deeper insertion, achieving a stable effect.

[0020] The previous paragraph introduced that the conveying strip 4 will pass over the docking block 7, so there will be no obstruction on the upper side of the docking block 7. At this time, since the arc spring 10 is squeezed, the docking block 7 will be quickly rotated to the top of the docking rod 6 after release, forming a collision and generating vibration. Since this solution is to drop and place branches, the frame 1 will be produced as a whole, and the branches transported by the vehicle body above the fixing frame 15 will have uneven heights. The vibration can make the uneven branches smooth on the surface of the fixing frame 15, and can ensure the falling of one side of the branches. This is the second effect. Figure 3 and 4 The figures all show that the docking block 7 and the conveyor bar 4 have been docked. This paragraph introduces how the docking block 7 and the conveyor bar 4 are docked. As the docking block 7 is reset to the top of the docking rod 6, waiting for the next set of conveyor bars 4 to come over, due to the large elastic force of the torsion springs of the No. 1 column 8 and the No. 2 column 9, as the conveyor bar 4 comes over, the No. 1 column 8 blocks one side of the conveyor bar 4, and the No. 2 column 9 blocks the inner side of the conveyor bar 4 (a transversely extending bar is provided on the inner side of the conveyor bar 4, and the No. 2 column 9 blocks one side of the transversely extending bar, forcing the conveyor bar 4 to rotate), forcing the conveyor bar 4 to rotate, that is, causing the rotation spring 5 to twist, as shown in the attached manual. Figure 4 As shown, as the docking block 7 and the conveying bar 4 continue to rotate, the separation between the two will be achieved as described in the previous paragraph. Since the conveying bar 4 of this solution rotates, it is difficult to set the force of the branches to make the conveying bar 4 rotate;

[0021] As the instruction manual Figure 5 Said, a docking column is slidingly provided on one side of the docking block 7, and a protruding spring 14 is provided on one side of the docking column. When one side of the docking column is not squeezed, the docking column is extended. Figure 3-6In both cases, the docking post is not extended, that is, one side of the docking post is squeezed and has to move toward the extension spring 14 (the squeeze passes through the docking block 7, and the edge of the docking post is chamfered, which can realize the squeezing and movement of the docking post during the docking process). The upward movement of the docking post has two effects, refer to the attached manual. Figure 3 , the docking column has a laterally extending structure that overlaps the notch 16 (such as Figure 3 Amplification interval), the regulating valve 11 is in the shape of a cylinder, which is rotatably arranged inside the conveying strip 4. As the docking column moves upward, the regulating valve 11 rotates. A corresponding channel 21 is opened on the regulating valve 11. When the corresponding channel 21 rotates, it docks with the ejection port 20 to form a connection, as shown in the attached manual. Figure 5-6 As shown, since a docking pipe 27 is provided on one side of the docking block 7, an air compressor or a blower needs to be installed on one side of the docking pipe 27 so that the docking pipe 27 can realize air outlet. The docking pipe 27 is connected to the docking block 7, and the docking block 7 and the conveying strip 4 are docked to realize the communication of the channel. The contact position between the docking block 7 and the conveying strip 4 is made of sealing material. An internal piece 28 is slidingly provided inside the docking block 7. One end of the internal piece 28 is supported by a small spring (this spring is very small and difficult to see). Under normal circumstances, the internal piece 28 extends outward and forms a partition inside. Once the conveying strip 4 is delivered, the internal piece 28 is pulled outward. When the delivery strips 4 are docked, the internal piece 28 will be squeezed, so that the interior of the docking block 7 is connected. In this solution, the docking block 7 does not need the internal piece 28. The internal piece 28 is an auxiliary part. The docking position of this solution corresponds to the rotation of the delivery strip 4, so the angle of the air outlet is rotated. When it blows on the sand, it can blow into the sand at that position, reducing the sand on its surface. When it blows on the branches, it can also provide a certain power for the branches to move downward. Corresponding to the first effect, the reduction of the sand on the surface can make the position low-lying. After the branches accumulate, they can accumulate along the low-lying area, and it is difficult for them to spread to the sides under natural wind conditions.

[0022] As described above, the docking column moves in the direction of the extension spring 14. As the conveying strip 4 passes over the docking block 7, the docking column extends under the action of the extension spring 14. The extension of the docking column can drive the regulating valve 11 to rotate and reset, so as to achieve the effect of staggering the ejection port 20 and the docking channel. At the same time, the docking column causes the slider 12 to move downward together, so as to achieve the effect of squeezing the side block 19 downward. The side block 19 is integrally arranged on one side of the internal strip 13, so that the internal strip 13 rotates. The rotation of the internal strip 13 can make the internal strip 13 away from the long mouth 22 (see the instruction manual). Figure 6When the handle 12 is rotated clockwise, the long opening 22 is reached and the liquid can be discharged. As the docking rod 6 moves downward (the elastic force of the extended spring 14 is greater than the elastic force of the No. 1 spring 18), it will disengage from the side block 19 (because the side block 19 rotates and changes its position, it will be separated). One side of the internal bar 13 also has a No. 1 spring 18 for torsion reset (after rotation, it can be reset to block the long opening 22 again), and the docking rod 6 moves upward. At this time, the slider 12 can be squeezed over the side block 19 under the action of the side block 19 (one side of the slider 12 has a support spring 17 for reset), and the liquid discharged from the long opening 22 can make the branch surface stained with liquid. Natural wind-blown sand can use the viscosity of the liquid to stain the sand, increase weight, and can reduce dust on the raised sand. At the same time, reaching the depression can make the depression moist, increase viscosity, and cause the depression to continue to sink, thereby increasing the stability of the ridge-shaped branch;

[0023] In order to enable the conveying bar 4 to be filled with liquid, this solution is provided with a supply pipe 23, and the position of the supply pipe 23 is fixed. Since the conveying bar 4 is in continuous operation, the supply pipe 23 is set at the moving track of the conveying bar 4 to wait, and the supply pipe 23 can be connected with the connecting channel 26. The supply pipe 23 is provided with an extrudable No. 1 valve 24, and the connecting channel 26 is provided with an extrudable No. 2 valve 25. Both the No. 1 valve 24 and the No. 2 valve 25 can be extended. The principle is consistent with the extension principle of the docking column, and both are supported by springs. Since the extended shapes of the No. 1 valve 24 and the No. 2 valve 25 are chamfered, they can be squeezed. When the No. 1 valve 24 and the No. 2 valve 25 are squeezed, they will be connected, and if they are not squeezed, they will be blocked (such as the No. 1 valve 24 blocks the supply pipe 23, and the No. 2 valve 25 blocks the connecting channel 26). The instruction manual is attached. Figure 3 The No. 2 valve 25 and the No. 1 valve 24 have the maximum squeezing distance (which can be achieved by setting the maximum sliding distance), so the No. 2 valve 25 and the No. 1 valve 24 will squeeze when they are docked;

[0024] The supply pipe 23 needs to be connected to a water tank above. When the water tank is open, the liquid will automatically reach the conveyor bar 4. Because the conveyor bar 4 is at a low position, in order to increase the connection time of the supply pipe 23, two methods can be used to set it up. The first method is to slow down the operation time of the conveyor belt 2. The second method is consistent with the setting principle of the docking block 7. It adopts lateral sliding and lateral spring support. It has a structure similar to the No. 1 column 8 that presses against one side of the conveyor bar 4. The lateral movement distance of the supply pipe 23 is limited. The first method only needs to slow down the speed because the conveyor bar 4 does not need to store too much liquid.

[0025] Finally, the steps of this program are introduced. Figure 2-6 The structure is in the appendix of the manual. Figure 2The front and back are symmetrically arranged, and the left and right are symmetrically arranged. Secondly, the fixing frame 15 of this scheme can also adopt two methods. One is to be integrally arranged on the frame body 1 like the docking rod 6, and the other is to be flexibly connected to the conveyor belt 2. Both can realize the transportation of branches.

[0026] The surface of the frame 1 is provided with a transmission mechanism, which includes a conveyor belt 2, a conveyor wheel 3 and a conveyor bar 4. The upper surface of the conveyor belt 2 is rotatably provided with a conveyor bar 4, and a rotation spring 5 is provided between the conveyor belt 2 and the conveyor bar 4. The interior of the frame 1 is provided with a docking mechanism, which includes a docking rod 6, a docking block 7, a first column 8 and a second column 9. The docking block 7 is rotatably provided on the surface of the docking rod 6, and an arc spring 10 is provided on one side of the docking block 7. A docking column 29 is slidably provided on one side of the conveyor bar 4. A regulating valve 11 is rotatably provided inside the conveyor bar 4, and a docking column 29 is overlapped on one side of the regulating valve 11. A slider 12 is slidably provided on the upper surface of the docking column 29, and an internal bar 13 is rotatably provided inside the conveyor bar 4. One side of the docking column 29 is provided with an extension spring 14, and one side of the docking block 7 is rotatably provided with a first column 8, and the middle part of the docking block 7 is rotatably provided with a second column 9. One side of the slider 12 is provided There is a supporting spring 17, a No. 1 spring 18 is provided on one side of the internal strip 13, a side block 19 is provided at one end of the internal strip 13, a spray outlet 20 is provided on one side of the conveying strip 4, a corresponding channel 21 is provided inside the regulating valve 11, a long mouth 22 is provided on one side of the conveying strip 4, a supply mechanism is provided on one side of the frame 1, the supply mechanism includes a supply pipe 23, No. 1 valve 24 and No. 2 valve 25, the lower surface of the supply pipe 23 is slidingly provided with No. 1 valve 24, the upper surface of the conveying strip 4 is provided with a connecting channel 26, the upper surface of the connecting channel 26 is slidingly provided with No. 2 valve 25, a docking pipe 27 is provided on one side of the docking block 7, and an internal sheet 28 is slidingly provided inside the docking block 7, the conveying wheel 3 is rotatably provided on the upper surface of the frame 1, the surface of the conveying wheel 3 is overlapped with the conveyor belt 2, a fixing frame 15 is provided in the middle of the frame 1, a notch 16 is provided on one side of the regulating valve 11, and a tooth groove is provided on the inner side wall of the conveyor belt 2.

[0027] Obviously, the above embodiments are merely examples for clarity of explanation and are not intended to limit the implementation methods. Those skilled in the art will readily appreciate that other variations or modifications based on the above descriptions are possible. It is not necessary and impossible to enumerate all implementation methods here. Obvious variations or modifications arising therefrom remain within the scope of protection of the claims of this patent application.

Claims

1. A ridge-shaped branch sand barrier laying device, comprising a frame (1), characterized in that: The surface of the frame (1) is provided with a transmission mechanism, and the transmission mechanism includes a conveyor belt (2), a conveyor wheel (3) and a conveyor bar (4); the upper surface of the conveyor belt (2) is rotatably provided with a conveyor bar (4); a rotation spring (5) is provided between the conveyor belt (2) and the conveyor bar (4); the interior of the frame (1) is provided with a docking mechanism, and the docking mechanism includes a docking rod (6), a docking block (7), a first column (8) and a second column (9); the docking block (7) is rotatably provided on the surface of the docking rod (6); an arc spring (10) is provided on one side of the docking block (7); a docking column (29) is slidably provided on one side of the conveyor bar (4); a regulating valve (11) is rotatably provided inside the conveyor bar (4); a docking column (29) is overlapped on one side of the regulating valve (11); a slider (12) is slidably provided on the upper surface of the docking column (29); and an internal bar (13) is rotatably provided inside the conveyor bar (4); A protruding spring (14) is provided on one side of the docking column (29), a first column (8) is rotatably provided on one side of the docking block (7), and a second column (9) is rotatably provided in the middle of the docking block (7).

2. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A support spring (17) is provided on one side of the slider (12), a No. 1 spring (18) is provided on one side of the inner bar (13), and a side block (19) is provided at one end of the inner bar (13).

3. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A spray outlet (20) is provided on one side of the conveying strip (4), a corresponding channel (21) is provided inside the regulating valve (11), and a long opening (22) is provided on one side of the conveying strip (4).

4. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A supply mechanism is provided on one side of the frame (1), and the supply mechanism includes a supply pipe (23), a No. 1 valve (24) and a No. 2 valve (25). The No. 1 valve (24) is slidably provided on the lower surface of the supply pipe (23). A connecting channel (26) is provided on the upper surface of the conveying bar (4), and the No. 2 valve (25) is slidably provided on the upper surface of the connecting channel (26).

5. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A docking pipe (27) is provided on one side of the docking block (7), and an internal sheet (28) is slidably provided inside the docking block (7).

6. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: The conveying wheel (3) is rotatably arranged on the upper surface of the frame (1), and the surface of the conveying wheel (3) is overlapped with a conveyor belt (2).

7. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A fixing frame (15) is provided in the middle of the frame body (1).

8. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: A notch (16) is provided on one side of the regulating valve (11).

9. The ridge-shaped branch sand barrier laying equipment according to claim 1, characterized in that: The inner side wall of the conveyor belt (2) is provided with tooth grooves.

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