Slope reinforcing structure for civil engineering

Abstract

The invention provides a slope reinforcing structure for civil engineering. The slope reinforcing structure structurally comprises edge fixing blocks, bearing blocks, sliding grooves, adjusting rails and a movable reinforcing body. On the basis of the sliding groove of the bearing block and the adjusting rail, after the movable reinforcing body is improved, the restraining pieces and the adjusting wheels on the two sides can move in the adjusting rail in the sliding process of the sliding layer of the reinforcing frame in the sliding groove, and when the reinforcing plate moves to the proper position, the movable reinforcing body can be fixed. The inclination angle of the reinforcing plate can be adjusted again through the adjusting wheel, and finally, the inserting block is transversely inserted into the bearing block to be fixed, so that the angle and the position can be determined, and the reinforcing structure can form the adjustable characteristic of the angle and the position so as to be matched with side slopes with different inclination angles; the use strength of the reinforcing structure is improved, and the situation that part of materials and soil are lost due to the fact that complete covering and reinforcing cannot be achieved due to different angles and distances is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of civil engineering slope reinforcement, and more specifically to a civil engineering slope reinforcement structure. Background Art

[0002] Civil engineering is a general term for the science and technology of building various land engineering facilities. It refers to various engineering facilities built on the ground, underground or on land, directly or indirectly serving human life, production, military and scientific research. The slopes formed in the construction process of civil engineering need to be supported and reinforced with special reinforcement structures to avoid landslides or collapses caused by natural factors such as water molecules and wind, so as to effectively improve the stability of the slopes of civil engineering and prevent disasters. In summary, the inventors have found that the existing slope reinforcement devices mainly have the following defects: since the slope reinforcement body of the current slope reinforcement device is usually fixed in shape and cannot be adjusted in angle and distance, it will reflect insufficient contact with part of the inclined slope, thereby causing a small amount of material to be gradually lost, and eventually continuous accumulation will generate voids, which will reduce the reinforcement strength of the civil engineering slope and affect the overall safe construction effect of the civil engineering. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a slope reinforcement structure for civil engineering, which structure includes: an edge fixing block, a load-bearing block, a slide groove, an adjustment rail, and a movable reinforcement body. The edge fixing block is welded to the center of the left and right sides of the load-bearing block and the slide groove is opened in the surface area of ​​the load-bearing block. The adjustment rail is arranged on the left and right surfaces of the load-bearing block, and the load-bearing block installs the movable reinforcement body through the slide groove and the adjustment rail.

[0004] As a further improvement of the present invention, the movable reinforcement body is provided with a sliding layer, the sliding layer is arranged at the lower end center of the reinforcement frame and a reinforcement plate is connected to the inside of the reinforcement frame, and fixed grooves are also connected to the left and right sides of the lower end of the reinforcement frame to vertically install the restraining part, and the bottom end of the restraining part carries an adjusting wheel to adjust the inside of the rail, and the sliding layer and the sliding groove are in contact with each other.

[0005] As a further improvement of the present invention, the restraining member is provided with a connecting end, which is arranged at the upper end of the vertical block. The lower end of the vertical block is also connected to an adapter ring, and center blocks are fixed on the left and right sides of the vertical block to limit the insertion block.

[0006] As a further improvement of the present invention, the sliding groove and the adjustment rail of the load-bearing block are used to provide a moving area for the sliding layer of the movable reinforcement body and the pulley at the lower end of the restraining member, so that the sliding layer can be translated through the sliding groove, and the adjusting wheel of the restraining member moves accordingly to complete the distance adjustment of the reinforcement plate. At the same time, the adjusting wheel and human power are used again to make the adjusting wheel rotate at a fixed point inside the adjusting rail, so that the reinforcement plate forms an inclined state and the angle adjustment is completed. Finally, the plug block is inserted into the load-bearing block through the center block.

[0007] As a further improvement of the present invention, the edge fixing block is equipped with a vertical positioning block and is set in a symmetrical position on the left and right sides of the load-bearing block, and the slide groove of the load-bearing block cooperates with the adjustment rail to control the movable reinforcement body.

[0008] As a further improvement of the present invention, the reinforcement frame is in a "convex" shape and the lower ends on the left and right sides vertically fix the restraining parts through fixing grooves, the adjustment wheel is a solid spherical shape, the reinforcement plate is solid and the edge is covered by the reinforcement frame.

[0009] As a further improvement of the present invention, a vertical locking bolt is arranged at the center of the connecting end, which passes through both sides of the reinforcement frame and the reinforcement plate to fix them. The adapter ring is semicircular in shape and matches the shape of the adjusting wheel and restrains the centers of the left and right ends of the adjusting wheel. The insert block is combined with the center block to pass through the center of the vertical block and enter the interior of the load-bearing block for connection.

[0010] As a further improvement of the present invention, the left and right surfaces of the reinforcement plate are also provided with pushing members, one end of the pushing member is embedded in the inner center of the parallel block and connected with one end of the pushing block, and the other end of the pushing block is connected with the surface of the reinforcement plate. A positioning block is provided at the lower end of the parallel block to complete the splicing with the left and right surfaces of the load-bearing block. A frame is also provided in the upper area of ​​the parallel block, and the solid column is allowed to vertically penetrate the parallel block into the interior of the load-bearing block through the frame.

[0011] As a further improvement of the present invention, the parallel blocks are provided with a group on the left and right sides of the load-bearing block and are set in symmetrical positions. Then the number of push blocks and push members is consistent with the number of parallel blocks, and the frame is square in shape to restrain the edge of the solid column.

[0012] As a further improvement of the present invention, a welding module is also provided on the side of the pushing member. The welding module is arranged on the left and right sides of the connecting frame and a groove is opened in the connecting frame. The solid plate is embedded through the groove, and the surface of the solid plate also carries a control block.

[0013] As a further improvement of the present invention, the connecting frame is welded to the left and right sides of the pushing members through left and right welding modules. The connecting frame forms a polygonal shape in combination with the groove position, and the solid plate inside the groove is manually pushed by the control block.

[0014] As a further improvement of the present invention, the load-bearing block is also provided with a contact layer, which is arranged at the lower end of the block and a vertical sleeve is connected in the block to allow a large-diameter locking bolt to vertically penetrate, and a splicing block is connected to the top of the large-diameter locking bolt to connect with the rotating module, and the top of the rotating module is installed at the bottom of the small driving machine, and a portable buckle is also fixed on the top of the small driving machine.

[0015] As a further improvement of the present invention, the contact layer is in a parallel shape and the inner wall of the vertical sleeve of the block carries an internal thread that matches the large-diameter locking bolt, the splicing block and the rotating module are of the same length and interspersed and overlapped with each other, and the portable hole on the top of the small driving machine is made of plastic and has a built-in independent power supply (independent detachable battery).

[0016] As a further improvement of the present invention, the rotating module is provided with a convex buckle, which is installed on the surface of the carbon steel block and the lower end of the carbon steel block is connected to an adsorption block, and the left and right surfaces of the lower end of the adsorption block are also connected to solid blocks. A card slot is opened in the center of the bottom of the adsorption block to complete the card connection with the top splicing block of the large diameter locking bolt and is embedded on the left and right sides through the solid block to complete the edge restraint.

[0017] As a further improvement of the present invention, the convex buckle includes a small spring, and the card groove of the lower layer of the adsorption block at the lower end of the carbon steel block allows the top center of the splicing block to be embedded, and the solid blocks on the left and right sides of the lower end of the adsorption block are vertically embedded in the two side edges of the upper end of the splicing block.

[0018] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is based on the slide groove and adjustment rail of the load-bearing block, and then is improved according to the movable reinforcement body. During the sliding process of the sliding layer of the reinforcement frame in the slide groove, the restraining parts and the adjustment wheels on both sides can move in the adjustment rails. When the reinforcement plate is moved to a suitable position, the reinforcement plate can be adjusted by the adjustment wheel again for the tilt angle. Finally, the insertion block is inserted horizontally into the load-bearing block for fixation, so as to complete the determination of the angle and position, so that the reinforcement structure can form adjustable characteristics of angle and position to match slopes with various tilt angles, thereby improving the use strength of the reinforcement structure and avoiding the loss of some materials and soil caused by the inability to fully cover the reinforcement due to different angles and distances.

[0019] 2. In the present invention, the newly added parallel blocks on the left and right sides of the surface of the reinforcement plate can use the positioning blocks to complete the connection with the load-bearing blocks, and then use the pushing member to penetrate the center of the parallel blocks to drive the pushing blocks to stably push the reinforcement plate and the reinforcement frame. During the process, they can be combined with the newly added connecting frame to push simultaneously, so as to achieve the effect of parallel control and improve the stability during pushing. Then, when the reinforcement plate is adjusted to an inclined angle, the positioning blocks at the bottom of the parallel blocks will separate from the left and right side areas of the load-bearing blocks at an inclined angle. Conversely, after the insertion blocks are taken out, the reinforcement plate can be reset and fixed in a vertical position again in combination with the weight of the positioning blocks, which is convenient for later adjustment and use on slopes with different inclination degrees.

[0020] 3. After the load-bearing block of the present invention is further improved, the large-diameter locking bolt can be vertically penetrated through the vertical sleeve in the block, and then the large-diameter locking bolt can be driven by the rotating module of the small driving machine through the top splicing block, so that it can be locked into the ground by the large-diameter locking bolt. The origin positioning strength of the overall reinforcement structure can be improved to prevent shaking and instability during reinforcement, and then the cooperation of the small driving machine can improve the convenience of controlling the large-diameter locking bolt and improve the efficiency of disassembly and assembly. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 The present invention is a schematic diagram of a slope reinforcement structure for civil engineering.

[0022] Figure 2 The present invention is a schematic diagram of the structure of a movable reinforcement body after improvement.

[0023] Figure 3 The present invention is a schematic diagram of the structure of an improved restraining member when viewed from the front.

[0024] Figure 4 The present invention is a three-dimensional structural schematic diagram of a reinforcement plate with newly added components in the left and right areas of the surface.

[0025] Figure 5 The present invention is a schematic diagram of a top view of a structure in which components are welded on the side of a pushing member.

[0026] Figure 6 The present invention is a schematic diagram of the structure of an improved load-bearing block from a side view.

[0027] Figure 7 The present invention is a schematic structural diagram of a sectional view of an improved rotating module.

[0028] In the figure: edge fixing block-1, load-bearing block-2, slide slot-3, adjustment rail-4, movable reinforcement body-5; Sliding layer-51, reinforcement frame-52, reinforcement plate-53, fixing groove-54, restraining member-55, adjusting wheel-56; Connecting end-551, vertical block-552, adapter ring-553, center block-554, plug-in block-555; Pushing member 531, parallel block 532, pushing block 533, positioning block 534, frame 535, solid column 536; Welding module-5311, connecting frame-5312, groove-5313, solid plate-5314, control block-5315; Contact layer-21, block-22, vertical sleeve-23, large diameter locking bolt-24, splicing block-25, rotating module-26, small driving machine-27, portable buckle-28; Convex buckle-261, carbon steel block-262, adsorption block-263, solid block-264, and card slot-265. DETAILED DESCRIPTION

[0029] The present invention is further described below in conjunction with the accompanying drawings: Example

[0030] Figures 1 to 5 As shown: The present invention provides a slope reinforcement structure for civil engineering. Its structure includes an edge fixing block 1, a load-bearing block 2, a slide groove 3, an adjustment rail 4, and a movable reinforcement body 5. The edge fixing block 1 is welded to the center of the left and right sides of the load-bearing block 2 and the slide groove 3 is opened in the surface area of ​​the load-bearing block 2. The adjustment rail 4 is arranged on the left and right surfaces of the load-bearing block 2. The load-bearing block 2 installs the movable reinforcement body 5 through the slide groove 3 and the adjustment rail 4.

[0031] Among them, the movable reinforcement body 5 is provided with a sliding layer 51, the sliding layer 51 is arranged at the lower end center of the reinforcement frame 52 and the reinforcement frame 52 is connected with a reinforcement plate 53 inside, and the left and right sides of the lower end of the reinforcement frame 52 are also connected with fixed grooves 54 to vertically install the restraining member 55, and the bottom end of the restraining member 55 carries an adjusting wheel 56 to adjust the inside of the rail 4, and the sliding layer 51 is in contact with the slide groove 3.

[0032] The restraining member 55 is provided with a connecting end 551 , which is arranged at the upper end of the vertical block 552 . The lower end of the vertical block 552 is also connected with an adaptor ring 553 . The left and right sides of the vertical block 552 are fixed with center blocks 554 to limit the insertion block 555 .

[0033] Among them, the sliding groove 3 and the adjusting rail 4 of the load-bearing block 2 are used to provide a moving area for the sliding layer 51 of the movable reinforcement body 5 and the pulley 56 at the lower end of the restraining member 55, so that the sliding layer 51 can be translated through the sliding groove 3, and the adjusting wheel 56 of the restraining member 55 moves accordingly to complete the distance adjustment of the reinforcement plate 53. At the same time, the adjusting wheel 56 and human power are used again to make the adjusting wheel 56 rotate at a fixed point inside the adjusting rail 4, so that the reinforcement plate 53 forms an inclined state and completes the angle adjustment. Finally, the insert block 555 is inserted into the load-bearing block 2 through the center block 554.

[0034] The edge fixing block 1 is equipped with a vertical positioning block and is set in a symmetrical position on the left and right sides of the load-bearing block 2 . The slide groove 3 of the load-bearing block 2 cooperates with the adjustment rail 4 to control the movable reinforcement body 5 .

[0035] The reinforcement frame 52 is in the shape of a "convex" character and the lower ends on both sides vertically fix the restraining member 55 through fixing grooves 54 . The adjusting wheel 56 is in the shape of a solid sphere. The reinforcement plate 53 is in the shape of a solid body and its edge is covered by the reinforcement frame 52 .

[0036] Among them, a vertical locking bolt is set at the center of the connecting end 551, which will pass through both sides of the reinforcement frame 52 and the reinforcement plate 53 to fix them. The adapter ring 553 is semicircular in shape and matches the shape of the adjusting wheel 56 and restrains the centers of the left and right ends of the adjusting wheel 56. The insert block 555 is combined with the center block 554 to pass through the center of the vertical block 552 and enter the interior of the load-bearing block 2 for connection.

[0037] Among them, the left and right surfaces of the reinforcement plate 53 are also provided with a pushing member 531, one end of the pushing member 531 is embedded in the inner center of the parallel block 532 and connected with one end of the pushing block 533, and the other end of the pushing block 533 is connected with the surface of the reinforcement plate 53, and a positioning block 534 is provided at the lower end of the parallel block 532 to complete the splicing with the left and right surfaces of the load-bearing block 2, and a frame 535 is also provided in the upper area of ​​the parallel block 532, through which the solid column 536 is vertically penetrated through the parallel block 532 to enter the interior of the load-bearing block 2.

[0038] Among them, the parallel blocks 532 are provided in a group on the left and right sides of the load-bearing block 2 and are set in a symmetrical orientation, and then the number of push blocks 533 and push members 531 is consistent with the number of parallel blocks 532, and the frame 535 is a square shape to restrain the edge of the solid column 536.

[0039] Among them, a welding module 5311 is also provided on the side of the pushing member 531. The welding module 5311 is arranged on the left and right sides of the connecting frame 5312 and a groove 5313 is opened in the connecting frame 5312. The solid plate 5314 is embedded through the groove 5313. The surface of the solid plate 5314 also carries a control block 5315.

[0040] Among them, the connecting frame 5312 is welded and connected with the sides of the pushing members 531 on the left and right sides through the left and right welding modules 5311. The connecting frame 5312 forms a polygonal shape in combination with the position of the groove 5313, and the solid plate 5314 inside the groove 5313 is manually pushed by the control block 5315.

[0041] Specific functions and operation procedures of this embodiment: In the present invention, the load-bearing block 2 of the slope reinforcement structure for civil engineering can be installed parallel to the use origin through the edge fixing block 1, and then the slide groove 3 and the adjustment rail 4 opened on the load-bearing block 2 can allow the movable reinforcement body 5 to be displaced and the angle adjusted, so that the reinforcement frame 52 and the reinforcement plate 53 of the movable reinforcement body 5 can be translated in the slide groove 3 using the bottom sliding layer 51, and at the same time, the adjustment wheel 56 of the restraining member 55 in the fixed groove 54 can roll during translation to achieve the effect of auxiliary movement. After the distance is moved to a suitable position, the reinforcement plate 53 can again use the origin rotation effect of the adjustment wheel 56 to adjust the inclination angle of the reinforcement plate 53. When the angle is adjusted to a suitable position, the vertical rotation of the restraining member 55 The block 552 can pass through the central block 554 to allow the plug block 555 to penetrate horizontally, so that the plug block 555 can enter the load-bearing block 2 and intersect with it, fix the position of the adjusting wheel 56, and fix the two sides of the reinforcing plate 53 at the same time, preventing the position and angle of the reinforcing plate 53 from being automatically displaced by the airflow in the space without the support of any restraining objects, improving the reinforcement stability of the civil engineering slope and the adjustable characteristics formed can avoid the loss of some materials and soil caused by the mismatch of the angle and distance position, further improving the use strength of the reinforced structure, and then the vertical block 552 can be embedded in the fixing groove 54 through the upper connecting end 551 to complete the intersection with the reinforcement frame 52. The semicircular adapter ring 553 at the bottom can be connected with the adjusting wheel 56, ensuring that the adjusting wheel 56 can move at the bottom center of the vertical block 552. Parallel blocks 532 are also newly provided on the left and right sides of the surface of the reinforcing plate 53. The parallel blocks 532 can be installed in parallel to the left and right sides of the surface of the load-bearing block 2 through the bottom positioning blocks 534. There is a gap between the adjusting rail 4, and then the pushing member 531 in the parallel block 532 can drive the pushing block 533 to be used by passing through it in a straight line. For this purpose, the solid plate 5314 and the control block 5315 of the connecting frame 5312 and the groove 5313 newly added to the side of the pushing member 531 can drive the pushing members 531 on the left and right sides to move parallel in the parallel block 532 at one time. The push block 533 is used to drive the reinforcing plate 53 to be parallel, thereby improving the stability effect during translation. After the position is moved to a suitable position and the angle of the reinforcing plate 53 is adjusted, the matched solid column 536 can penetrate the frame 535 and the parallel block 532 and the positioning block 534 and enter the load-bearing block 2 for insertion and connection (when the reinforcing plate 53 is combined with the adjusting wheel 56 to adjust the angle, the positioning block 534 at the bottom of the parallel block 532 will be affected by the adjustment factors and gradually separated from the inside of the load-bearing block 2. On the contrary, after use, when all parts are reset, the parallel block 532 can be reset by the weight and centrifugal force of the positioning block 534, ensuring that the reinforcing plate 53 is reset in a vertical position.The convenience of subsequent adjustment for slopes with different inclination angles is improved. (The frame 535 is a rectangular parallelepiped so that it can form an inclined state when the positioning block 534 gradually separates from the inside of the load-bearing block 2. After the inclined state, the rectangular through groove in the middle can also allow the solid column 536 to penetrate vertically, preventing the solid column 536 from being unable to be embedded and fixed after the angle adjustment caused by the simple square shape. Combined with the restraint of the plug block 555, the fixing strength of the overall reinforcement structure can be improved. For this reason, the newly added connecting frame 5312 on the side of the pusher 531 can be welded at the left and right ends. The connecting module 5311 completes the welding and stable connection with the two groups of pushers 531, and then the groove 5313 opened by the connecting frame 5312 allows the solid plate 5314 to be embedded, so that the control block 5315 on the solid plate 5314 can drive the two groups of pushers 531 to translate at the same time by being in the center position and in combination with the connection of the connecting frame 5312, thereby improving the stability of the translation of the reinforcement plate 53 (the groove 5313 of the connecting frame 5312 is to improve the center embedding accuracy of the solid block 5314 and will not hinder the normal arrangement and use of other components on the load-bearing block 2). Example

[0042] Figure 6 to Figure 7 As shown: The present invention provides a slope reinforcement structure for civil engineering. Its structure includes: the load-bearing block 2 is also provided with a contact layer 21, the contact layer 21 is arranged at the lower end of the block 22, and a vertical sleeve 23 is connected in the block 22 to allow a large-diameter locking bolt 24 to vertically penetrate, the top of the large-diameter locking bolt 24 is connected with a splicing block 25 to connect with a rotating module 26, the top of the rotating module 26 is installed at the bottom of a small driving machine 27, and a portable buckle 28 is also fixed on the top of the small driving machine 27.

[0043] Among them, the contact layer 21 is in a parallel shape and the inner wall of the vertical sleeve 23 of the block 22 carries an internal thread and is compatible with the large-diameter locking bolt 24. The splicing block 25 and the rotating module 26 are of the same length and are interspersed and overlapped with each other. The portable hole 28 on the top of the small driving machine 27 is made of plastic and has a built-in independent power supply (independent detachable battery).

[0044] Among them, the rotating module 26 is provided with a convex buckle 261, and the convex buckle 261 is installed on the surface of the carbon steel block 262 and the lower end of the carbon steel block 262 is connected to the adsorption block 263, and the left and right surfaces of the lower end of the adsorption block 263 are also connected to solid blocks 264. A card slot 265 is opened in the center of the bottom of the adsorption block 263 to complete the card connection with the top splicing block 25 of the large-diameter locking bolt 24 and is embedded on the left and right through the solid block 264 to complete the edge restraint.

[0045] Among them, the convex buckle 261 contains a small spring, and the lower groove 265 of the adsorption block 263 at the lower end of the carbon steel block 262 allows the top center of the splicing block 25 to be embedded, and the solid blocks 264 on the left and right sides of the lower end of the adsorption block 263 are vertically embedded in the upper side edges of the splicing block 25.

[0046] Specific functions and operation procedures of this embodiment: In the present invention, the block 22 of the load-bearing block 2 can complete parallel contact with the ground through the parallel contact layer 21, and then the internal thread of the vertical sleeve 23 in the block 22 can be adapted to the external thread of the large-diameter locking bolt 24, so that the top of the large-diameter locking bolt 24 can be snap-fitted with the rotating module 26 at the bottom of the small driving machine 27 according to the splicing block 25. For this purpose, the small driving machine 27 can be manually taken and placed through the top portable buckle 28, and then can be wirelessly operated according to the built-in independent power supply. For this purpose, after the small driving machine 27 completes the snap-fitting connection with the splicing block 25 at the top of the large-diameter locking bolt 24 through the rotating module 26, the small driving machine 27 operates to drive the rotating module 26 to rotate, which can drive the large-diameter locking bolt 24 to rotate and penetrate the block 22, and then vertically embed into the ground to complete the fixed connection. The connection firmness between the reinforcement structure and the ground and the expansion effect of the locking range are further improved, and the bottom instability is prevented from reducing the reinforcement effect of the reinforcement plate 53 on the slope. The carbon steel block 262 of the rotating module 26 can be connected to the rotating accessories inside the small driving machine 27 through the convex buckle 261, and then the adsorption block 263 at the lower end of the carbon steel block 262 can be combined with the card slot 265 in the center of the lower layer to allow the center of the splicing block 25 to be embedded. For this reason, the center of the splicing block 25 enters the adsorption block 263 through the card slot 265 to complete the center connection. At the same time, the solid blocks 264 on the left and right sides are embedded in the left and right sides of the surface of the splicing block 25 to complete the edge restraint, so that it can achieve the effect of detachable snap connection. At the same time, the edge restraint can improve the rotation operation strength of the small driving machine 27 to stably drive the large-diameter locking bolt 24.

[0047] Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A slope reinforcement structure for civil engineering, comprising: An edge fixing block (1), a load-bearing block (2), a slide groove (3), an adjustment rail (4), and a movable reinforcement body (5), wherein the edge fixing block (1) is welded to the center of the left and right sides of the load-bearing block (2), and the slide groove (3) is opened in the surface area of ​​the load-bearing block (2), and the adjustment rail (4) is arranged on the left and right surfaces of the load-bearing block (2), and the load-bearing block (2) installs the movable reinforcement body (5) through the slide groove (3) and the adjustment rail (4), and is characterized in that: The movable reinforcement body (5) is provided with a sliding layer (51), the sliding layer (51) is arranged at the center of the lower end of the reinforcement frame (52), and the reinforcement frame (52) is connected to a reinforcement plate (53) inside. The left and right sides of the lower end of the reinforcement frame (52) are also connected to fixed grooves (54) for vertically inserting a restraining member (55). The bottom end of the restraining member (55) carries an adjusting wheel (56) for adjusting the inside of the rail (4). The sliding layer (51) and the sliding groove (3) are in contact with each other. The restraining member (55) is provided with a connecting end (551), and the connecting end (551) is arranged at the upper end of the vertical block (552). The lower end of the vertical block (552) is also connected to an adaptor ring (553). Center blocks (554) are fixed on the left and right sides of the vertical block (552) to limit the insertion block (555); The sliding groove (3) and the adjusting rail (4) of the load-bearing block (2) provide a moving area for the sliding layer (51) of the movable reinforcement body (5) and the pulley (56) at the lower end of the restraining member (55), so that the sliding layer (51) can be translated through the sliding groove (3). During the process, the adjusting wheel (56) of the restraining member (55) moves accordingly to complete the distance adjustment of the reinforcement plate (53). At the same time, the adjusting wheel (56) and human power are used again to make the adjusting wheel (56) rotate at a fixed point inside the adjusting rail (4), so that the reinforcement plate (53) forms an inclined state, and the angle adjustment is completed. Finally, the insert block (555) is inserted into the load-bearing block (2) through the central block (554).

2. A civil engineering slope reinforcement structure according to claim 1, characterized in that: The edge fixing block (1) is equipped with a vertical positioning block and is set in a symmetrical position on the left and right sides of the load-bearing block (2). The slide groove (3) of the load-bearing block (2) cooperates with the adjustment rail (4) to control the movable reinforcement body (5).

3. A civil engineering slope reinforcement structure according to claim 1, characterized in that: The reinforcement frame (52) is in the shape of a "convex" character and the lower ends on the left and right sides vertically fix the restraining member (55) through fixing grooves (54); the adjustment wheel (56) is in the form of a solid sphere; the reinforcement plate (53) is in the form of a solid body and its edge is covered by the reinforcement frame (52).

4. A civil engineering slope reinforcement structure according to claim 1, characterized in that: A vertical locking bolt is provided at the center of the connecting end (551), and the locking bolt penetrates through both sides of the reinforcing frame (52) and the reinforcing plate (53) to fix them. The adaptor ring (553) is semicircular in shape and matches the shape of the adjusting wheel (56) and restrains the centers of the left and right ends of the adjusting wheel (56). The insert block (555) is combined with the center block (554) to penetrate through the center of the vertical block (552) and enter the interior of the load-bearing block (2) for connection.

5. The civil engineering slope reinforcement structure according to claim 1, characterized in that: The left and right surfaces of the reinforcing plate (53) are further provided with pushing members (531), one end of the pushing member (531) is embedded in the center of the parallel block (532) and connected with one end of the pushing block (533), and the other end of the pushing block (533) is connected with the surface of the reinforcing plate (53). The lower end of the parallel block (532) is provided with a positioning block (534) to complete the splicing with the left and right surfaces of the load-bearing block (2). The upper area of ​​the parallel block (532) is further provided with a frame (535), and the solid column (536) is vertically penetrated through the parallel block (532) through the frame (535) to enter the interior of the load-bearing block (2); The parallel blocks (532) are provided in a group on the left and right sides of the load-bearing block (2) and are set in symmetrical positions. The number of the push blocks (533) and the push members (531) is consistent with the number of the parallel blocks (532). The frame (535) is in a square shape to restrain the edge of the solid column (536).

6. A civil engineering slope reinforcement structure according to claim 5, characterized in that: The side of the pusher (531) is also provided with a welding module (5311), the welding module (5311) is arranged on the left and right sides of the connecting frame (5312), and a groove (5313) is opened in the connecting frame (5312), and the solid plate (5314) is embedded through the groove (5313), and the surface of the solid plate (5314) also carries a control block (5315); The connecting frame (5312) is welded to the sides of the pushers (531) on the left and right sides through the left and right welding modules (5311); the connecting frame (5312) is formed into a polygonal shape in combination with the position of the groove (5313); and the solid plate (5314) inside the groove (5313) is manually pushed through the control block (5315).

7. The civil engineering slope reinforcement structure according to claim 1, characterized in that: The load-bearing block (2) is further provided with a contact layer (21), the contact layer (21) being arranged at the lower end of the block body (22), and a vertical sleeve (23) being connected in the block body (22) to allow the large-diameter locking bolt (24) to vertically penetrate, a splicing block (25) being connected to the top of the large-diameter locking bolt (24) to connect with the rotating module (26), the top of the rotating module (26) being mounted on the bottom of the small driving machine (27), and a portable buckle (28) being fixed to the top of the small driving machine (27); The contact layer (21) is parallel and the inner wall of the vertical sleeve (23) of the block (22) carries an internal thread that matches the large-diameter locking bolt (24). The splicing block (25) and the rotating module (26) are of the same length and intersect and overlap each other. The portable hole (28) on the top of the small driving machine (27) is made of plastic and has an independent power supply (independent detachable battery) built in.

8. A civil engineering slope reinforcement structure according to claim 7, characterized in that: The rotating module (26) is provided with a convex buckle (261), the convex buckle (261) is installed on the surface of the carbon steel block (262), and the lower end of the carbon steel block (262) is connected to an adsorption block (263), and the surfaces on the left and right sides of the lower end of the adsorption block (263) are also connected to solid blocks (264), and a slot (265) is opened at the center of the bottom of the adsorption block (263) to complete the engagement with the top splicing block (25) of the large-diameter locking bolt (24) and to complete the edge restraint by being embedded on the left and right through the solid block (264); The convex buckle (261) includes a small spring, and the lower groove (265) of the adsorption block (263) at the lower end of the carbon steel block (262) allows the top center of the splicing block (25) to be embedded, and the solid blocks (264) on the left and right sides of the lower end of the adsorption block (263) are vertically embedded in the upper side edges of the splicing block (25).

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