Ecological slope protection structure built based on natural landscape

Abstract

The ecological slope protection structure comprises a positioning block, a connecting table, a slope protection body, a planting end and separation rods, the positioning block is welded to the lower end of a connecting flat plate, the side end of the surface layer of the connecting flat plate is fixedly connected with the slope protection body, and the planting end is arranged at the top of the slope protection body; the separation fences are installed on the side edges of the planting ends and fixedly connected with the slope protection body. After the connection platform is further improved, a large amount of rainwater blocked on the slope protection body can be led out through the channel of the bearing platform and the guiding structure, and therefore the rainwater can enter the guiding groove through the intercepting net of the guiding structure and then be drained; therefore, the situation that the slope protection body is washed away due to accumulation of a large amount of rainwater after extremely heavy rainfall can be avoided, the use strength and the drainage effect of the slope protection structure are further improved, and meanwhile the situation that a large amount of soil is lost can be avoided according to the intercepting net.

Description

Technical Field

[0001] This invention relates to the field of ecological slope protection technology, and more specifically to an ecological slope protection structure based on natural landscape creation. Background Technology

[0002] Natural landscapes refer to naturally occurring scenes and things, including special landforms such as mountains, canyons, and islands. As a result, the slope protection structures created by natural landscapes age under the erosion of the natural environment, thus requiring the use of artificially manufactured ecological slope protection structures for maintenance and repair to ensure the stability of natural landscapes. In summary, the inventors have found the following results: Firstly, the "An Ecological Slope Protection Structure Based on Natural Landscape Creation" with application number "CN202020247038.X" is a comprehensive ecological slope protection structure. The multi-layered protection structure not only helps to reinforce the slope soil, but also benefits vegetation growth and prevents soil erosion. The planted plants can increase the layered structure of the landscape and improve the aesthetic effect of the slope. Secondly, the "An Ecological Landscape Slope Protection Structure for Urban Lakes" with application number "CN202023141381.5" uses a geotextile concrete layer to adapt to the lakebed topography, a gabion layer to resist erosion by wind and waves and to have water permeability, and anchors to improve the integrity of the gabion layer and the slope. However, the following defects still exist: Although the current ecological slope protection structure has the characteristics of resisting wind and wave erosion and water permeability, when encountering extreme heavy rainfall, the amount of water accumulated in the ecological environment will far exceed the normal amount of water. As a result, when the internal water volume is too large and exceeds the bearing limit of the current slope protection structure, the slope protection structure is very easy to be washed away by the pressure of a large amount of water, which will reduce the service strength of the slope protection structure in extreme heavy rainfall. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: an ecological slope protection structure based on natural landscape creation, the structure of which includes: a positioning block, a connecting platform, a slope protection body, a planting end, and a dividing bar. The positioning block is welded to the lower end of the connecting platform, the surface side of the connecting platform is fixedly connected to the slope protection body, the planting end is set at the top of the slope protection body, and the dividing bar is installed on the side of the planting end and fixedly connected to the slope protection body.

[0004] As a further improvement of the present invention, the connecting platform is provided with a load-bearing platform, overlapping end, protrusion, anti-rust frame, channel, and guide structure. The left side of the surface of the load-bearing platform is an integrated structure with the overlapping end. The protrusion is vertically fixed to the center of the overlapping end. The anti-rust frame is embedded in the right side area of ​​the load-bearing platform and one end contacts the side of the overlapping end. The channel communicates with the anti-rust frame. The guide structure is set above the protrusion and communicates with the anti-rust frame and the channel. The guide structure is embedded in the internal area of ​​the slope protection body and is not connected to the planting end above. The overlapping end on the load-bearing platform is finely polished and the protrusion is made of magnetic metal. The number of anti-rust frames and the number of channels are the same, with three sets of each. At the same time, there are also three sets of guide structures. Each set of guide structures communicates with each channel individually.

[0005] As a further improvement of the present invention, the guiding structure includes a connecting block, a guiding block, a guiding groove, a splicing groove, a locking block, an overlapping frame, and an intercepting net. The connecting block is welded to the outer edge of the guiding block. The guiding block is penetrated by the guiding groove. The splicing groove extends from the back edge of the guiding block. The locking block is embedded in the splicing groove and connected to the guiding block. The edge of the overlapping frame is connected to the locking block and coincides with the guiding block. The intercepting net is installed inside the overlapping frame and communicates with the guiding groove of the guiding block. The guiding block is embedded in the internal area of ​​the slope protection body through the connecting block and communicates with the channel. There are four connecting blocks on both sides of the guiding block. The guiding block is trapezoidal in shape. The shape of the guiding groove depends on the shape of the guiding block. The number of splicing grooves is the same as the number of locking blocks, and the shape of the overlapping frame is the same as the shape of the back of the guiding block. The intercepting net is made of carbon steel.

[0006] As a further improvement of the present invention, the surface of the guide block is additionally provided with an insert block, a fixing member, a through groove, a slot, a flexible tube, and a flow cavity. The insert block passes through the left and right sides of the fixing member and communicates with the through groove. The flexible tube and the slot are an integrated structure. The flexible tube carries the slot into the through groove and connects with the insert block. The flow cavity passes through the central area of ​​the flexible tube and communicates with the guide groove. There are a total of four insert blocks on both sides of the fixing member. The shape of the through groove of the fixing member is adapted to the shape of the flexible tube. The flexible tube is made of rubber and contains a metal tube inside. The flow cavity is opened in a straight line.

[0007] As a further improvement of the present invention, the flexible tube is provided with a sliding layer, a solid body, a polished layer, and pressure rods. The sliding layer and the solid body are an integrated structure. The polished layer is disposed in the opposite area of ​​the sliding layer. The pressure rods are fixedly connected to the solid body through the polished layer. The solid body is fixedly connected to both sides of the flexible tube through the polished layer, and the pressure rods are embedded in the bottom of the inner layer of the flexible tube for pressing. The sliding layer is finely polished. The solid body is provided on each side of the pressure rods. There are a total of three pressure rods with corresponding spacing between them.

[0008] As a further improvement of the present invention, the planting end is provided with a partition plate, a carrying layer, a positioning sleeve, a vertical member, and a cavity. The surface layer of the partition plate and the carrying layer are an integrated structure. The positioning sleeve is embedded in the carrying layer. The edge of the vertical member overlaps with the edge of the carrying layer and communicates with the positioning sleeve. The cavity vertically penetrates the central area of ​​the vertical member. The partition plate is installed inside the slope protection body and is not connected to the guide structure below. The positioning sleeve is set above the guide structure through the partition plate. The cavity communicates with the partition rod. The partition plate is completely solid. Three sets of circular positioning sleeves are installed on the carrying layer. The edge of the vertical member overlaps with the edge of the carrying layer.

[0009] As a further improvement of the present invention, the positioning sleeve is provided with a support column, a partition ring, a filling groove, and a winding column. The support column is vertically installed at the lower end of the partition ring and is located at the same center point. The filling groove passes through the central area of ​​the partition ring and communicates with the interior of the support column. The winding column is fixed to the inner center point of the support column and communicates with the filling groove. The partition ring is installed in the load layer of the partition plate through the support column. The diameter of the support column is smaller than the diameter of the partition ring. The filling groove is concave and the winding column inside is solid.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. With further improvements to the connecting platform, the present invention can draw out a large amount of rainwater blocked on the slope through the channel of the load-bearing platform and the guiding structure. The rainwater can then enter the guiding channel through the interception net of the guiding structure and then be discharged, thereby avoiding the collapse of the slope due to the accumulation of a large amount of rainwater after extreme heavy rainfall. This further improves the strength and drainage effect of the slope structure, while the interception net can prevent a large amount of soil loss.

[0011] 2. The present invention has a new fixing member on the surface of the guide block that can fix the position of the flexible tube through the interlocking block. After the flexible tube is aligned with the inside of the channel, rainwater can be discharged quickly in a straight line, avoiding the blockage caused by impurities due to continuous exposure to the outside world and the accumulation of a large amount of mud in the channel. Subsequently, the flexible tube can press its bottom against the surface of the channel according to the internal pressure rod to prevent positional displacement caused by excessive water pressure.

[0012] 3. With further improvements to the planting end, the present invention, in conjunction with the solid partition plate, makes the load layer, positioning sleeve, vertical component, cavity area and guiding structure form a form that is not interconnected, thereby avoiding the loss of soil in the cavity area caused by drainage, and enhancing the planting stability of small plants. Then, the winding column in the positioning sleeve allows the roots and stems of small plants to be wrapped around, preventing arbitrary extension and subsequent difficulty in transplanting. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of an ecological slope protection structure based on natural landscape creation.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved connecting platform.

[0015] Figure 3 This is a three-dimensional structural diagram of an improved guiding structure.

[0016] Figure 4 This is a three-dimensional structural diagram of a newly added component on the surface of a guide block.

[0017] Figure 5 This is a three-dimensional structural diagram of a newly added component of a flexible tube.

[0018] Figure 6 This is a schematic diagram of a three-dimensional structure after an improvement in the planting end.

[0019] Figure 7 This is a three-dimensional structural diagram of an improved positioning sleeve.

[0020] In the diagram: Positioning block-1, Connecting platform-2, Slope protection body-3, Planting end-4, Divider rod-5, Load-bearing platform-21, Overlapping end-22, Protrusion-23, Anti-rust frame-24, Channel-25, Guide structure-26, Connecting block-261, Guide block-262, Guide groove-263, Splicing groove-264, Locking block-265, Overlapping frame-266, Interception net-267, Insertion block-a1, Fixing component-a2, Through groove-a3, Locking groove-a4, Flexible pipe-a5, Flow cavity-a6, Sliding layer-a51, Solid body-a52, Flattened layer-a53, Pressure rod-a54, Divider plate-41, Load-bearing layer-42, Positioning sleeve-43, Vertical component-44, Cavity-45, Support column-431, Partition ring-432, Filling groove-433, Wrapping column-434. Implementation

[0021] The present invention will be further described below with reference to the accompanying drawings: Example

[0022] Figures 1 to 5 As shown: This invention provides an ecological slope protection structure based on natural landscape design. Its structure includes a positioning block 1, a connecting plate 2, a slope protection body 3, a planting end 4, and a dividing bar 5. The positioning block 1 is welded to the lower end of the connecting plate 2. The surface side of the connecting plate 2 is fixedly connected to the slope protection body 3. The planting end 4 is set on the top of the slope protection body 3. The dividing bar 5 is installed on the side of the planting end 4 and fixedly connected to the slope protection body 3.

[0023] The connecting platform 2 includes a load-bearing platform 21, overlapping end 22, protrusion 23, anti-rust frame 24, channel 25, and guide structure 26. The left side of the surface of the load-bearing platform 21 is integrated with the overlapping end 22. The protrusion 23 is vertically fixed to the center of the overlapping end 22. The anti-rust frame 24 is embedded in the right side area of ​​the load-bearing platform 21 and one end contacts the side of the overlapping end 22. The channel 25 communicates with the anti-rust frame 24. The guide structure 26 is located above the protrusion 23 and communicates with the anti-rust frame 24 and the channel 25. The guide structure 26 is embedded in the internal area of ​​the slope protection body 3 and is not connected to the planting end 4 above. The overlapping end 22 on the load-bearing platform 21 is finely polished, and the protrusion 23 is made of magnetic metal. The number of anti-rust frames 24 and channels 25 is the same, with three sets of each. There are also three sets of guide structures 26, and each set of guide structures 26 communicates with each channel 25 individually. The load-bearing platform 21 can improve the stability of overlapping assembly with components through the finely polished overlapping end 22 and the magnetically attracted protrusion 23. The anti-rust frame 24 can cover the channel 25 to avoid corrosion of the channel 25 caused by continuous contact with water molecules. Then, the channel 25 can quickly drain the accumulated water according to the three sets of guiding structures 26. The orderly drainage can avoid mutual conflict and reduce the drainage speed.

[0024] The guiding structure 26 includes a connecting block 261, a guiding block 262, a guiding groove 263, a splicing groove 264, a locking block 265, an overlapping frame 266, and an intercepting net 267. The connecting block 261 is welded to the outer edge of the guiding block 262. The guiding block 262 is penetrated by the guiding groove 263. The splicing groove 264 extends from the back edge of the guiding block 262. The locking block 265 is embedded in the splicing groove 264 and connected to the guiding block 262. The edge of the overlapping frame 266 is connected to the locking block 265 and overlaps with the guiding block 262. The intercepting net... 267 is installed inside the overlapping frame 266 and communicates with the guide groove 263 of the guide block 262. The guide block 262 is embedded in the internal area of ​​the slope protection body 3 through the connecting block 261 and communicates with the channel 25. There are four connecting blocks 261 on both sides of the guide block 262. The guide block 262 is trapezoidal in shape. The shape of the guide groove 263 depends on the shape of the guide block 262. The number of splicing grooves 264 is the same as the number of card blocks 265, and the shape of the overlapping frame 266 is the same as the shape of the back of the guide block 262. The intercepting net 267 is made of carbon steel. The connecting block 261 ensures a firm connection between the guide block 262 and the component by having multiple blocks on both sides of the guide block 262. The guide block 262, with its trapezoidal shape, can achieve large-area water diversion and then use spatial centrifugal force and water pressure for rapid drainage. The splicing groove 264, based on its quantity and shape, allows the locking block 265 of the overlapping frame 266 to be embedded, completing the connection between the overlapping frame 266 and the guide block 262. The interception net 267, with its high hardness, can avoid deformation caused by continuous water pressure impact, and through the interception effect, it can significantly reduce soil erosion.

[0025] The guide block 262 is further provided with an insert block a1, a fixing member a2, a through groove a3, a slot a4, a flexible tube a5, and a flow cavity a6. The insert block a1 passes through the left and right sides of the fixing member a2 and communicates with the through groove a3. The flexible tube a5 and the slot a4 are an integrated structure. The flexible tube a5 carries the slot a4 into the through groove a3 and connects with the insert block a1. The flow cavity a6 passes through the central area of ​​the flexible tube a5 and communicates with the guide groove 263. There are four insert blocks a1 on both sides of the fixing member a2. The shape of the through groove a3 of the fixing member a2 is adapted to the shape of the flexible tube a5. The flexible tube a5 is made of rubber and contains a metal tube inside. The flow cavity a6 is opened in a straight line. The interlocking block a1 can improve the connection balance between the fixing member a2 and the two sides of the component by being located on both sides of the fixing member a2. The fixing member a2 can be connected to the flexible tube a5 by the through groove a3. The flexible tube a5 fills the component by the flexible rebound characteristics of the external rubber, and then improves the drainage stability by the internal metal tube. The flow cavity a6 allows the accumulated water to be discharged in a straight line.

[0026] The flexible tube a5 comprises a sliding layer a51, a solid body a52, a polished layer a53, and pressure rods a54. The sliding layer a51 and the solid body a52 are an integrated structure. The polished layer a53 is located in the opposite area of ​​the sliding layer a51. The pressure rods a54 are fixedly connected to the solid body a52 through the polished layer a53. The solid body a52 is fixedly connected to both sides of the flexible tube a5 through the polished layer a53, and the pressure rods a54 are embedded in the bottom of the inner layer of the flexible tube a5 for pressing. The sliding layer a51 is finely polished. There is one solid body a52 on each side of the pressure rods a54. There are three pressure rods a54 in total, and there are corresponding intervals between them. The smooth layer a51, through its finely polished shape, can improve the smoothness of assembly and prevent jamming. The solid body a52, based on the number of two pieces, can restrain and fix the two sides of the pressure rod a54. The pressure rod a54, through three pieces, can press the bottom of the inner layer of the component tightly to prevent displacement caused by large-scale shaking due to water pressure.

[0027] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The ecological slope protection structure can use positioning block 1 to fix the connecting platform 2 to a specific area of ​​use, so that the slope protection body 3 on the connecting platform 2 can contact the edge of the landscape, thereby reinforcing the loose edge area. Then, different types of small vegetation can be planted on the planting end 4 of the slope protection body 3. During the process, the types can be distinguished according to the dividing rod 5 for easy identification. Second: The load-bearing platform 21 of the connecting platform 2 can be embedded into the slope protection body 3 by relying on the overlapping end 22 and the magnetic protrusion 23, thereby achieving a firm assembly. Subsequently, the three straight channels 25 developed on the load-bearing platform 21 can be reinforced by the anti-rust frame 24 to prevent corrosion caused by continuous contact with water molecules. Subsequently, the three sets of guide structures 26 embedded in the slope protection body 3 can be connected to each channel 25 individually. Therefore, in extreme heavy rainfall, a large amount of water in the landscape can be guided by the guide structure 26 of the slope protection body 3, and then the guide structure 26 will lead the water into the channel 25 area for drainage, thereby strengthening the use strength of the slope protection structure and improving drainage performance, and preventing the slope protection structure from being submerged and washed away due to the inability to drain the water in time during heavy rainfall. Third: The trapezoidal guide block 262 of the guide structure 26 can be embedded into the slope protection body 3 according to the connecting blocks 261 on both sides to complete the position positioning. Then the guide groove 263 of the guide block 262 can guide the accumulated water. During the process, the guide block 262 can be connected with the card block 265 of the overlapping frame 266 through the splicing groove 264, so that the carbon steel interception net 267 covers the guide groove 263. Thus, when the accumulated water enters the guide groove 263, the interception net 267 can intercept the mud and sand to the greatest extent, avoiding the loss of a large amount of mud and sand during the drainage process. Finally, the accumulated water will flow out into the channel 25 area to complete the drainage process and prevent the situation of waterlogging caused by the inability to drain quickly, which could lead to the collapse of the slope protection structure and damage to the landscape. Fourth: The newly added fixing member a2 on the surface of the guide block 262 can be embedded in the flexible tube a5 through the through groove a3. Then, the inserting blocks a1 on both sides of the fixing member a2 will enter the through groove a3 from both sides, so that they can overlap with the slot a4 of the flexible tube a5, thus completing the connection between the flexible tube a5 and the fixing member a2. Subsequently, the added flexible tube a5 can fill the channel 25 area, so that the three channels 25 form a non-interconnected shape, so that the water can flow out in a completely straight direction, preventing mutual conflict. At the same time, it can avoid the blockage caused by impurities covering the channel 25 due to continuous exposure to the outside world, ensuring that the water can be stably discharged from the flow cavity a6 area of ​​the flexible tube a5. Fifth: The newly added solid body a52 at the edge of the flexible tube a5 can be embedded in the inner wall of the channel 25 through the sliding layer a51. Under the restraint of the solid body a52, the stability of the flexible tube a5 in the channel 25 can be improved. Subsequently, the flattened layer a53 of the solid body a52 can allow the pressure rod a54 to enter the inner bottom layer of the flexible tube a5, pressing the inner bottom layer of the flexible tube a5 tightly to the surface of the channel 25, avoiding large-scale shaking and displacement of the flexible tube a5 caused by excessive water pressure, and improving the balance between the flexible tube a5 and the channel 25. Example

[0028] Figures 6 to 7 As shown: This invention provides an ecological slope protection structure based on natural landscape design. Its structure includes a planting end 4 with a partition plate 41, a carrying layer 42, a positioning sleeve 43, a vertical member 44, and a cavity 45. The surface of the partition plate 41 and the carrying layer 42 are an integrated structure. The positioning sleeve 43 is embedded in the carrying layer 42. The edge of the vertical member 44 overlaps with the edge of the carrying layer 42 and communicates with the positioning sleeve 43. The cavity 45 vertically penetrates the central area of ​​the vertical member 44. The partition plate 41 is installed inside the slope protection body 3 and is not connected to the guide structure 26 below. The positioning sleeve 43 is set above the guide structure 26 through the partition plate 41. The cavity 45 communicates with the partition rod 5. The partition plate 41 is completely solid. Three sets of circular positioning sleeves 43 are installed on the carrying layer 42. The edge of the vertical member 44 overlaps with the edge of the carrying layer 42. The partition plate 41, being completely solid, prevents the soil in the area of ​​the carrying layer 42 from being washed away during the drainage process, ensuring the planting stability of small plants. The three sets of circular positioning sleeves 43 on the carrying layer 42 can position the roots and stems of the three types of small plants. The vertical member 44, by coinciding with the edge of the carrying layer 42, ensures that the small plants can grow in a vertical orientation.

[0029] The positioning sleeve 43 includes a support column 431, a partition ring 432, a filling groove 433, and a winding column 434. The support column 431 is vertically installed at the lower end of the partition ring 432 and is located at the same center point. The filling groove 433 passes through the central area of ​​the partition ring 432 and communicates with the interior of the support column 431. The winding column 434 is fixed to the internal center point of the support column 431 and communicates with the filling groove 433. The partition ring 432 is installed in the load layer 42 of the partition plate 41 through the support column 431. The diameter of the support column 431 is smaller than the diameter of the partition ring 432. The filling groove 433 is concave and the winding column 434 inside is solid. The support column 431 can be stably installed at the lower end of the partition ring 432 by its own diameter, thus achieving a mutually perpendicular effect. The filling groove 433 can be covered by soil by its concave shape, and the winding column 434 can allow the roots and stems of small plants to be wrapped around it, preventing arbitrary extension and subsequent difficulty in transplanting.

[0030] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The solid partition plate 41 of the planting end 4 can be installed in the middle and upper area of ​​the slope protection body 3. Thus, the solid partition plate 41 can make the positioning sleeve 43 of the load layer 42 and the guide structure 26 form a non-communicating shape, so as to avoid the guide structure 26 from driving the soil in the vertical part 44 and cavity 45 area when draining water. This can ensure the stable planting effect of small plants in the positioning sleeve 43 area. Thus, the three sets of positioning sleeves 43 can position the roots of three different kinds of small plants, improve the identification of roots, and prevent roots from tangling together. At the same time, the vertical part 44 will help the small plants grow vertically through the cavity 45. Second: The support column 431 of the positioning sleeve 43 will be embedded inside the partition plate 41, and then the bottom layer of the partition ring 432 will overlap with the surface layer of the load layer 42. The filling groove 433 set inside the partition ring 432 and the support column 431 allows a solid circular winding column 434 to be vertically embedded. When small plant roots enter the filling groove 433 for planting, their long roots can surround the surface of the winding column 434, avoiding arbitrary extension that makes it difficult to transplant in the rear area. This facilitates the planting, differentiation, and transplanting of small plants on the slope protection structure.

[0031] Any technical solution that achieves the above-mentioned technical effects by utilizing the technical solutions described in this invention, or by designing similar technical solutions by those skilled in the art under the inspiration of the technical solutions described in this invention, falls within the protection scope of this invention.

Claims

1. An ecological slope protection structure based on natural landscape creation, the structure comprising: The positioning block (1), connecting plate (2), slope protection body (3), planting end (4), and dividing bar (5) are characterized in that: the positioning block (1) is welded to the lower end of the connecting plate (2), the surface side of the connecting plate (2) is fixedly connected to the slope protection body (3), the planting end (4) is set on the top of the slope protection body (3), and the dividing bar (5) is installed on the side of the planting end (4) and fixedly connected to the slope protection body (3).

2. The ecological slope protection structure based on natural landscape creation according to claim 1, characterized in that: The connecting platform (2) is provided with a load-bearing platform (21), overlapping end (22), protrusion (23), anti-rust frame (24), channel (25), and guide structure (26). The left side of the surface of the load-bearing platform (21) is an integrated structure with the overlapping end (22). The protrusion (23) is vertically fixed to the center of the overlapping end (22). The anti-rust frame (24) is embedded in the right side area of ​​the load-bearing platform (21) and one end is in contact with the side of the overlapping end (22). The channel (25) is connected to the anti-rust frame (24). The guide structure (26) is set above the protrusion (23) and is connected to the anti-rust frame (24) and the channel (25). The guide structure (26) is embedded in the internal area of ​​the slope protection body (3) and is not connected to the planting end (4) above.

3. The ecological slope protection structure based on natural landscape creation according to claim 2, characterized in that: The guiding structure (26) includes a connecting block (261), a guiding block (262), a guiding groove (263), a splicing groove (264), a locking block (265), an overlapping frame (266), and an intercepting net (267). The connecting block (261) is welded to the outer edge of the guiding block (262). The guiding block (262) is penetrated by the guiding groove (263). The splicing groove (264) is opened at the back edge of the guiding block (262). The block (265) is embedded in the splicing groove (264) and connected to the guide block (262). The edge of the overlapping frame (266) is connected to the card block (265) and overlaps with the guide block (262). The intercepting net (267) is installed inside the overlapping frame (266) and communicates with the guide groove (263) of the guide block (262). The guide block (262) is embedded in the internal area of ​​the slope protection body (3) through the connecting block (261) and communicates with the channel (25).

4. The ecological slope protection structure based on natural landscape creation according to claim 3, characterized in that: The surface of the guide block (262) is newly provided with an insert block (a1), a fixing member (a2), a through groove (a3), a slot (a4), a flexible tube (a5), and a flow cavity (a6). The insert block (a1) passes through the left and right sides of the fixing member (a2) and communicates with the through groove (a3). The flexible tube (a5) and the slot (a4) are an integrated structure. The flexible tube (a5) carries the slot (a4) into the through groove (a3) ​​and connects with the insert block (a1). The flow cavity (a6) passes through the central area of ​​the flexible tube (a5) and communicates with the guide groove (263).

5. An ecological slope protection structure based on natural landscape creation according to claim 4, characterized in that: The flexible tube (a5) is provided with a sliding layer (a51), a solid body (a52), a flattened layer (a53), and a pressure rod (a54). The sliding layer (a51) and the solid body (a52) are an integrated structure. The flattened layer (a53) is located in the opposite area of ​​the sliding layer (a51). The pressure rod (a54) is fixedly connected to the solid body (a52) through the flattened layer (a53). The solid body (a52) is fixedly connected to both sides of the flexible tube (a5) through the flattened layer (a53), and the pressure rod (a54) is embedded in the bottom of the inner layer of the flexible tube (a5) for pressing.

6. The ecological slope protection structure based on natural landscape creation according to claim 1, characterized in that: The planting end (4) is provided with a partition plate (41), a load layer (42), a positioning sleeve (43), a vertical piece (44), and a cavity (45). The surface of the partition plate (41) and the load layer (42) are an integrated structure. The positioning sleeve (43) is embedded in the load layer (42). The edge of the vertical piece (44) overlaps with the edge of the load layer (42) and communicates with the positioning sleeve (43). The cavity (45) vertically penetrates the central area of ​​the vertical piece (44). The partition plate (41) is installed inside the slope protection body (3) and is not connected to the guide structure (26) below. The positioning sleeve (43) is set above the guide structure (26) through the partition plate (41). The cavity (45) communicates with the partition rod (5).

7. An ecological slope protection structure based on natural landscape creation according to claim 6, characterized in that: The positioning sleeve (43) is provided with a support column (431), a partition ring (432), a filling groove (433), and a winding column (434). The support column (431) is vertically installed at the lower end of the partition ring (432) and is located at the same center point. The filling groove (433) passes through the center area of ​​the partition ring (432) and communicates with the inside of the support column (431). The winding column (434) is fixed at the inner center point of the support column (431) and communicates with the filling groove (433). The partition ring (432) is installed in the load layer (42) of the partition plate (41) through the support column (431).

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