Prevention and control device for preventing flood and debris flow geological disasters

Abstract

The invention provides a flood control and debris flow geological disaster prevention and control device which structurally comprises a novel base, a reinforcing plate and connecting buckles, the reinforcing plate penetrates through the center of the novel base, and three sets of connecting buckles are fixed to the edge of the surface layer of the reinforcing plate; a controller of the whole novel base is installed on the debris flow road through an assembling groove of a protruding block, then a vertical sleeve and a sliding rod conduct intelligent electric control adjustment on the height of a reinforcing plate, and when the reinforcing plate ascends through the sliding rod, a positioning driving piece of a movable supporting body is spliced with a connecting buckle of the reinforcing plate through an angle wheel and an extension pull rod; therefore, original manual one-by-one arrangement can be replaced by remote intelligent control, so that the arrangement efficiency is reduced, the strength effect of resisting debris flow can be improved, and missing of partial areas caused by emergency situations is avoided; and finally, after the debris flow disaster, the reinforcing plate can enter the underground vertical sleeve to be placed through resetting of the sliding rod, the positioning driving piece and the angle wheel, and the situation that disassembly is needed is replaced.

Description

Technical Field

[0001] The invention relates to the technical field of debris flow disaster prevention and control, and more specifically to a flood and debris flow prevention and control geological disaster prevention and control device. Background Art

[0002] Debris flow is a natural disaster that occurs in mountainous areas or other deep valleys. It is usually triggered by factors such as heavy rain, melting ice and snow, or reservoir breaches. It is a special torrent that carries a large amount of solid debris such as mud, sand, and stones. Before a debris flow is determined to occur, a special disaster prevention device can be installed in the area where the debris flow passes. The prevention device can effectively resist the strong impact brought by the debris flow, thereby ensuring the safety factor of the village and the convenience of subsequent remediation. In summary, the inventors have found that the existing prevention and control devices mainly have the following defects: since the structure of the current prevention and control devices is relatively simple, they need to be manually installed and used on a large scale before the mudslide occurs, and then they need to be manually disassembled and recycled one by one after the disaster is remedied. Therefore, when they are deployed on a large scale before a disaster occurs, it is very easy for some areas to be missed due to emergency situations, which will reduce the blocking strength against mudslides. At the same time, since manual dismantling is required before and after the disaster, the manual work intensity will increase. Summary of the invention

[0003] The technical solution adopted by the present invention to achieve the technical purpose is: a flood and mudslide prevention and geological disaster prevention device, whose structure includes: a new base, a reinforcement plate, and connecting buckles. The center of the new base is penetrated by the reinforcement plate and three groups of connecting buckles are fixed on the surface edge of the reinforcement plate.

[0004] As a further improvement of the present invention, the new base is provided with a movable support body, the lower end of the movable support body is connected to the surface edge of the protrusion and an assembly groove is opened in the center of the protrusion, the protrusions are distributed on both side edges of the controller and only the protrusion on one side carries the connecting buckle of the movable support body and the reinforcement plate for interlaced connection, a sliding groove is provided in the center of the controller to allow the reinforcement plate to penetrate and a vertical sleeve is also provided at the lower end to allow the reinforcement plate to be inserted, so that its bottom is connected with the top of the slide rod, and the lower end of the slide rod is embedded in the inner center of the round rod.

[0005] As a further improvement of the present invention, the movable support body is provided with a positioning drive component, the positioning drive component is embedded in the upper end center of the vertical block and the lower end of the vertical block is embedded in the protrusion through the power block to be electrically connected to the controller, the positioning drive component contacts the angle wheel and controls its rotation, a support rod is fixed at one end of the angle wheel and an extension pull rod is arranged inside the support rod, and one end of the extension pull rod is connected to the connecting buckle of the adsorption block and the reinforcement plate for interlaced connection.

[0006] As a further improvement of the present invention, the reinforcing plate is vertically embedded through the sliding groove of the square controller of the new base, so that the lower end of the reinforcing plate is spliced ​​with the upper end of the sliding rod, and the extension height of the reinforcing plate is controlled by the extension of the sliding rod. During the process, the movable support body is simultaneously controlled by the controller through the power block. When the sliding rod rises, the angle wheel drives the support rod to adjust the angle, and at the same time the pull rod is extended from the support rod area. Finally, the adsorption block is embedded in the connecting buckle to complete the support splicing.

[0007] As a further improvement of the present invention, the area of ​​the new base is larger than the vertical area of ​​the reinforcing plate and a metal connecting slot is opened at the lower end of the connecting buckle surface of the reinforcing plate.

[0008] As a further improvement of the present invention, the slide groove is opened in a vertical direction and extends to the inside of the vertical sleeve to allow the slide rod of the round rod to be inserted and connected with the bottom of the reinforcement plate. There are three groups of protrusions on both sides of the controller and the three groups on one side carry movable support bodies and the other side only carries an assembly groove and the side carrying the movable support body is also provided with a conducting wire shaft for electrical connection with the controller.

[0009] As a further improvement of the present invention, the positioning drive member of the vertical block is semicircular in shape and matches the shape of the angle wheel. The support rod at one end of the angle wheel carries an electric slider inside to connect with the extension rod to control the extension movement of the extension rod.

[0010] As a further improvement of the present invention, the positioning drive component is provided with a drive module, a connecting rod is provided at the upper end of the drive module and a driving electric wheel is provided at the end of the connecting rod communicating with the rotating rail, the driving electric wheel is electrically connected to the drive module via a power-carrying wire shaft inside the connecting rod, the drive module can be electrically connected to the power-carrying block via a power-carrying wire shaft on the side, the bottom layer of the rotating rail is covered by an arc ring and an insert block is fixed to the bottom of the arc ring.

[0011] As a further improvement of the present invention, the driving module and the connecting rod are perpendicular to each other and a positioning rotating bolt is provided in the center area where the driving electric wheel and the connecting rod are connected. The rotating rail is combined with the driving electric wheel to limit the rotation area of ​​the angle wheel, and the bottom plug of the arc ring is rectangular.

[0012] As a further improvement of the present invention, the controller is provided with a waterproof cover, which covers the surface of the intelligent control chip and the intelligent control chip is embedded in the power-on slot. The power-on slot is arranged at the side center of the control body and the center of the control body is penetrated by the slide slot. The edge surface of the control body carries a separator block, the position of the splicing slot is determined by the separator block and the splicing slot carries a center block inside to allow the protrusion to be accurately inserted for splicing.

[0013] As a further improvement of the present invention, the area of ​​the waterproof cover is consistent with the area of ​​the intelligent control chip and the intelligent control chip is arranged in a parallel position in the power-on slot. A solar panel is also arranged on the upper edge of the control body. The partition block covers the edge of the splicing slot and the internal center block is in a convex shape and embedded in the inner center of the side of the convex block.

[0014] As a further improvement of the present invention, the partition block is provided with a welding frame, which covers the edge of the solid block and the upper and lower edges inside the solid block are provided with reinforcing blocks to support the center of the limit plate. The limit plate is arranged in the central part of the solid block and a slide rail is opened to allow the movable restraining block to slide parallely.

[0015] As a further improvement of the present invention, the shape of the welding frame is adapted to the solid block and a reinforcing block is provided in the middle of each of the two limiting plates and is set in mutually symmetrical positions. The edge of the movable restraining block contacts the surface of the limiting plate and two groups are provided in total.

[0016] As a further improvement of the present invention, the edge of the control body is provided with four partition blocks to open three splicing grooves, the partition blocks located on both sides of the center carry bidirectional movable restraining blocks, and the partition blocks located at the corner edges carry unidirectional movable restraining blocks.

[0017] As a further improvement of the present invention, the reinforcing plate is provided with a locking groove, which is arranged on the surface of the overlapping plate and is provided at three locations that match the number of sliding rods. Connecting blocks are connected to both sides of the surface of the overlapping plate and are installed at the lower end of the block through the connecting blocks. A small circulation groove is opened in the lower middle area of ​​the surface of the block.

[0018] As a further improvement of the present invention, the locking groove is circular and is set in a parallel orientation on the overlapping plates. The overlapping plates and the connecting blocks on both sides form a "concave" shape. There are three flow grooves in the middle and lower part of the block and they are square hollow in shape.

[0019] Compared with the prior art, the present invention has the following beneficial effects: 1. The present invention is further improved by the new base. First, the controller of the whole new base is installed in the path of the debris flow through the assembly groove of the protrusion, and then the height of the reinforcement plate is intelligently and electrically adjusted by using the vertical sleeve and the slide rod. When the reinforcement plate rises through the slide rod, the positioning drive member of the movable support body is spliced ​​with the connecting buckle of the reinforcement plate through the angle wheel and the extension pull rod. Therefore, a series of remote intelligent control can replace the original manual arrangement one by one to reduce the layout efficiency, thereby improving the strength effect of resisting debris flow and avoiding the omission of some areas caused by emergency situations. Finally, after the debris flow disaster, the reinforcement plate can be placed in the vertical sleeve underground by resetting the slide rod, the positioning drive member and the angle wheel, instead of the situation where it needs to be disassembled, which can facilitate the subsequent secondary use effect.

[0020] 2. After the controller is further improved, the present invention can effectively receive sunlight in the space for conversion and charging by controlling the solar panels arranged on the upper edge of the main body, and then remotely control the sunlight in the space in combination with the intelligent control chip of the side power slot. Therefore, the prevention device can form a remote intelligent control effect, replacing the original manual real-scene control process, thereby improving the convenience of deployment and use of the device. At the same time, the edge partition blocks can improve the fixation of the two sides of the convex block position by moving the parallel sliding of the restraining blocks, avoiding the shaking and falling off caused by the impact of mudslides, and improving the stability of the overall device in resisting mudslides.

[0021] 3. After further improvement of the reinforcing plate, the overlapping plate and the connecting block at the lower end of the block can ensure that the position of the locking groove can be consistent with the top position of the slide rod, so as to achieve a vertical connection effect. Then, the flow groove opened in the middle and lower part of the block can allow a small part of soil and water resources to flow slowly when a debris flow occurs, so that the stress intensity of the reinforcing plate can be reduced, and the damage of the device caused by large-scale high-intensity stress can be prevented. Then, when a small amount of circulation occurs, the convenience of later treatment of the disaster-stricken environment can be improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 The present invention is a structural schematic diagram of a flood and debris flow prevention and geological disaster prevention device.

[0023] Figure 2 This is a schematic diagram of the three-dimensional structure of a new improved base.

[0024] Figure 3 The present invention is a schematic diagram of the structure of a sectional view of an improved movable support body.

[0025] Figure 4 The present invention is a schematic diagram of the structure of a positioning drive component after improvement, viewed from the front.

[0026] Figure 5 The present invention is a schematic diagram of the three-dimensional structure of an improved controller.

[0027] Figure 6 The present invention is a schematic diagram of a cross-sectional structure of an improved middle and two side partition blocks.

[0028] Figure 7 The present invention is a schematic diagram of the structure of an improved cross-section of an edge separator block.

[0029] Figure 8 The present invention is a schematic diagram of the three-dimensional structure of an improved reinforced plate.

[0030] In the picture: new base-1, reinforcement plate-2, connecting buckle-3; Assembling groove-11, protrusion-12, movable support body-13, controller-14, slide groove-15, vertical sleeve-16, slide rod-17, round rod-18; Power supply block 131, vertical block 132, positioning drive member 133, support rod 134, angle wheel 135, extension rod 136, adsorption block 137; Driving module 1331, connecting rod 1332, driving electric wheel 1333, rotating rail 1334, arc ring 1335, plug block 1336; Waterproof cover-141, intelligent control chip-142, power supply slot-143, control body-144, partition block-145, splicing slot-146, center block-147; Welding frame-1451, solid block-1452, reinforcement block-1453, limit plate-1454, movable restraining block-1455; Locking groove-21, overlapping plate-22, connecting block-23, block body-24, flow groove-25. DETAILED DESCRIPTION

[0031] The present invention is further described below in conjunction with the accompanying drawings: Example

[0032] Figures 1 to 8 As shown: The present invention provides a flood and debris flow prevention and geological disaster prevention device. The structure includes a new base 1, a reinforcing plate 2, and connecting buckles 3. The center of the new base 1 is penetrated by the reinforcing plate 2, and three groups of connecting buckles 3 are fixed to the surface edge of the reinforcing plate 2.

[0033] Among them, the new base 1 is provided with a movable support body 13, the lower end of the movable support body 13 is connected to the surface edge of the protrusion 12 and an assembly groove 11 is opened in the center of the protrusion 12, the protrusions 12 are distributed on the two side edges of the controller 14 and only the protrusions 12 on one side carry the movable support body 13 and are inserted and connected with the connecting buckle 3 of the reinforcement plate 2, a slide groove 15 is provided in the center of the controller 14 to allow the reinforcement plate 2 to penetrate and a vertical sleeve 16 is also provided at the lower end to allow the reinforcement plate 2 to be inserted, so that its bottom is connected with the top of the slide rod 17, and the lower end of the slide rod 17 is embedded in the inner center of the round rod 18.

[0034] Among them, the movable support body 13 is provided with a positioning drive member 133, and the positioning drive member 133 is embedded in the upper end center of the vertical block 132 and the lower end of the vertical block 132 is embedded in the protrusion 12 through the power block 131 to be electrically connected to the controller 14, the positioning drive member 133 contacts the angle wheel 135 and controls its rotation, a support rod 134 is fixed at one end of the angle wheel 135 and an extension pull rod 136 is arranged inside the support rod 134, and one end of the extension pull rod 136 is connected to the adsorption block 137 and is interlaced with the connecting buckle 3 of the reinforcing plate 2.

[0035] Among them, the reinforcement plate 2 is vertically embedded through the slide groove 15 of the square controller 14 of the new base 1, so that the lower end of the reinforcement plate 2 is spliced ​​with the upper end of the slide rod 17, and the extension height of the reinforcement plate 2 is controlled by the extension of the slide rod 17. During the process, the movable support body 13 is simultaneously controlled by the controller 14 through the power block 131. When the slide rod 17 rises, the angle wheel 135 drives the support rod 134 to adjust the angle, and at the same time, the extension rod 136 is extended from the support rod 134 area, and finally embedded in the connecting buckle 3 through the adsorption block 137 to complete the support splicing.

[0036] The area of ​​the novel base 1 is larger than the vertical area of ​​the reinforcing plate 2 and a metal connecting slot is opened at the lower end of the surface of the connecting buckle 3 of the reinforcing plate 2 .

[0037] Among them, the slide groove 15 is opened in a vertical direction and extends to the inside of the vertical sleeve 16 to allow the slide rod 17 of the round rod 18 to be inserted and connected with the bottom of the reinforcement plate 2. The protrusions 12 are provided with three groups on both sides of the controller 14, and the three groups on one side carry the movable support body 13, and the other side only carries the assembly groove 11, and the side carrying the movable support body 13 is also arranged with a power-on wire shaft inside to be electrically connected to the controller 14.

[0038] Among them, the positioning drive member 133 of the vertical block 132 is semicircular in shape and matches the shape of the angle wheel 135. The support rod 134 at one end of the angle wheel 135 carries an electric slider inside to connect with the extension rod 136 to control the extension movement of the extension rod 136.

[0039] Among them, the positioning drive member 133 is provided with a driving module 1331, a connecting rod 1332 is provided on the upper end of the driving module 1331 and a driving electric wheel 1333 is provided at the end of the connecting rod 1332 communicating with the rotating rail 1334, the driving electric wheel 1333 completes the electrical connection with the driving module 1331 through the power-carrying wire shaft inside the connecting rod 1332, the driving module 1331 can be electrically connected to the power-carrying block 131 through the power-carrying wire shaft on the side, the bottom layer of the rotating rail 1334 is covered by an arc ring 1335 and a plug block 1336 is fixed at the bottom of the arc ring 1335.

[0040] Among them, the driving module 1331 and the connecting rod 1332 are perpendicular to each other and a positioning rotating bolt is provided in the center area where the driving electric wheel 1333 and the connecting rod 1332 are connected. The rotating rail 1334 is combined with the driving electric wheel 1333 to limit the rotating area of ​​the angle wheel 135, and the bottom plug 1336 of the arc ring 1335 is rectangular.

[0041] Among them, the controller 14 is provided with a waterproof cover 141, the waterproof cover 141 covers the surface of the intelligent control chip 142 and the intelligent control chip 142 is embedded in the power-on slot 143, the power-on slot 143 is arranged at the side center of the control body 144 and the center of the control body 144 is penetrated by the slide slot 15, the edge surface of the control body 144 carries a partition block 145, the position of the splicing slot 146 is determined by the partition block 145 and the splicing slot 146 carries a center block 147 to allow the protrusion 12 to be accurately inserted into the splicing.

[0042] Among them, the area of ​​the waterproof cover 141 is consistent with the area of ​​the intelligent control chip 142, and the intelligent control chip 142 is arranged in a parallel position in the power-on slot 143. A solar panel is also arranged on the upper edge of the control body 144. The partition block 145 covers the edge of the splicing slot 146 and the internal center block 147 is in a convex shape and embedded in the inner center of the side of the protrusion 12.

[0043] Among them, the dividing block 145 is provided with a welding frame 1451, and the welding frame 1451 covers the edge of the solid block 1452. The upper and lower edges inside the solid block 1452 are provided with reinforcing blocks 1453 to support the center of the limiting plate 1454. The limiting plate 1454 is set in the central part of the solid block 1452 and a sliding rail is opened to allow the movable restraining block 1455 to slide parallel.

[0044] Among them, the shape of the welding frame 1451 is adapted to the solid block 1452 and the reinforcing block 1453 is provided in the middle of each of the two limiting plates 1454 and is set in a mutually symmetrical orientation. The edge of the movable restraining block 1455 contacts the surface of the limiting plate 1454 and there are two groups in total.

[0045] Among them, the edge of the control body 144 is equipped with four partition blocks 145 to open three splicing grooves 146. The partition blocks 145 located on both sides of the center carry bidirectional movable restraining blocks 1455, and the partition blocks 145 located at the corner edges only carry unidirectional movable restraining blocks 1455.

[0046] Among them, the reinforcing plate 2 is provided with a locking groove 21, and the locking groove 21 is arranged on the surface of the overlapping plate 22 and is provided with three locations that match the number of the sliding rods 17. Connecting blocks 23 are connected to both sides of the surface of the overlapping plate 22, and are installed at the lower end of the block body 24 through the connecting blocks 23. A small flow groove 25 is opened in the lower middle area of ​​the surface of the block body 24.

[0047] The locking groove 21 is circular and is set in a parallel orientation on the overlapping plate 22. The overlapping plate 22 and the connecting blocks 23 on both sides form a "concave" shape. There are three flow grooves 25 in the middle and lower part of the block 24 and they are square hollow.

[0048] Specific functions and operation procedures of this embodiment: In the present invention, the flood prevention and debris flow geological disaster prevention device can vertically install the reinforcing plate 2 through the new base 1, and then when the whole device is idle in daily life, the reinforcing plate 2 can be stored in the vertical sleeve 16 through the controller 14 and the slide groove 15 of the new base 1, and the lower end of the reinforcing plate 2 can be spliced ​​with the top of the slide bar 17 inside the round rod 18, so that the controller 14 can be installed parallel to the inside of the ground through the protrusion 12 and the assembly groove 11 when installed. At the same time, the control body 144 of the controller 14 can receive space light energy through the solar panel carried on the edge of the surface to convert and charge energy, and then use the intelligent control chip 142 of the side power-on groove 143 to remotely intelligently control the slide bar 17 and the movable support body 13, and at the same time control the partition of the edge of the body 144 The block 145 can determine the position of the splicing groove 146, so that after the protrusion 12 is installed through the center block 147, the partition block 145 can allow the mobile restraining block 1455 to slide in parallel through the limit plate 1454 in the middle of its own solid block 1452, and reinforce the positions on both sides of the protrusion 12 to prevent looseness and instability. At the same time, the reinforcement block 1453 inside the solid block 1452 can support the limit plate 1454 to ensure that it can be set in a parallel orientation. Finally, the welding frame 1451 is firmly welded to the edge area of ​​the control body 144. Later, when a mudslide disaster occurs, the relevant operating personnel can remotely control the intelligent control chip 142 with the waterproof cover 141, so that the round rod 18 The slide bar 17 can vertically push the strengthening plate 2 out of the slide groove 15 area. During the process, the movable support body 13 can power the positioning drive member 133 through the power block 131 at the lower end of the vertical block 132, so that the driving module 1331 of the positioning drive member 133 can control the rotation of the driving electric wheel 1333 through the connecting rod 1332, and then the driving electric wheel 1333 drives the angle wheel 35 of the arc ring 1335 to rotate according to the position of the rotating rail 1334. When the angle wheel 135 rotates, the angle of the support rod 134 will tilt and change, and at the same time, the internal extension rod 136 will extend outward using the internal electric slider. Finally, after the strengthening plate 2 is vertically raised, its connecting buckle 3 will be exposed to the outside, and then the extension rod 136 will carry the adsorption block 137 is directly inserted into the bottom area of ​​the connecting buckle 3, and the angle adjustment of the angle wheel 135 can make the adsorption block 137 accurately inserted into the inner area of ​​the lower end of the connecting buckle 3, forming an inclined support effect, ensuring that the strengthening plate 2 can resist the mudslide in a stable state. Therefore, the intelligent electric control effect can effectively replace the process of manual adjustment on site, improve the convenience of use of the overall device and prevent the omission of some areas caused by emergency situations, thereby effectively improving the use intensity of the device and allowing the device to form an intelligent control effect. On the contrary, after the mudslide disaster, the angle wheel 135, the extension rod 136, and the sliding rod 17 can be reset by remote control again, so that the strengthening plate 2 can enter the ground again for storage.Therefore, the prevention area can be released without overall disassembly in the later stage, which improves the efficiency of post-disaster manual remediation. When the extension rod 136 is reset, the adsorption block 137 it carries will be forced to detach from the inside of the connecting buckle 3 by the reset tension of the extension rod 136. The convenience of assembly and disassembly can be achieved through the adsorption effect. The block 24 of the reinforcing plate 2 can improve the alignment accuracy of the position of the three locking grooves 21 and the position of the slide bar 17 through the bottom overlapping plate 22 and the connecting block 23, so that the reinforcing plate 2 can be lifted in a vertical position to prevent the occurrence of tilting and jamming. Then, the three flow grooves 25 opened in the middle and lower part of the block 24 allow a small part of the mud and sand of the debris flow to penetrate, thereby reducing the stress strength of the block 24 and avoiding damage and collapse caused by high-intensity continuous stress. At the same time, the infiltration of a small part of the mud and sand will not cause any impact damage to the village.

[0049] 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 flood and debris flow prevention and geological disaster prevention device, the structure of which includes: A novel base (1), a reinforcing plate (2), and a connecting buckle (3), wherein the center of the novel base (1) is penetrated by the reinforcing plate (2) and three groups of connecting buckles (3) are fixed to the edge of the surface of the reinforcing plate (2), characterized in that: The novel base (1) is provided with a movable support body (13), the lower end of the movable support body (13) is connected to the surface edge of the protrusion (12) and the center of the protrusion (12) is provided with an assembly groove (11), the protrusions (12) are distributed on the two side edges of the controller (14) and only one side of the protrusion (12) carries the movable support body (13) and is inserted and connected with the connecting buckle (3) of the reinforcing plate (2), the center of the controller (14) is provided with a slide groove (15) to allow the reinforcing plate (2) to penetrate and the lower end is also provided with a vertical sleeve (16) to allow the reinforcing plate (2) to be inserted, so that the bottom thereof is connected with the top of the slide rod (17), and the lower end of the slide rod (17) is embedded in the inner center of the round rod (18); The movable support body (13) is provided with a positioning drive member (133), the positioning drive member (133) is embedded in the center of the upper end of the vertical block (132), and the lower end of the vertical block (132) is embedded in the protrusion (12) through the power block (131) to be electrically connected to the controller (14), the positioning drive member (133) contacts the angle wheel (135) and controls its rotation, a support rod (134) is fixed to one end of the angle wheel (135), and an extension rod (136) is arranged inside the support rod (134), and one end of the extension rod (136) is connected to the adsorption block (137) and is interlaced with the connection buckle (3) of the reinforcing plate (2); The reinforcing plate (2) is vertically embedded in the slide groove (15) of the square controller (14) of the novel base (1), so that the lower end of the reinforcing plate (2) is spliced ​​with the upper end of the slide bar (17), and the extension height of the reinforcing plate (2) is controlled by the extension of the slide bar (17). During the process, the movable support body (13) is simultaneously controlled by the controller (14) through the power block (131). When the slide bar (17) rises, the angle wheel (135) drives the support rod (134) to adjust the angle, and at the same time, the extension rod (136) is extended from the support rod (134) area, and finally the adsorption block (137) is embedded in the connecting buckle (3) to complete the support splicing.

2. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The area of ​​the novel base (1) is larger than the vertical area of ​​the reinforcing plate (2), and a metal connecting slot is opened at the lower end of the surface layer of the connecting buckle (3) of the reinforcing plate (2).

3. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The slide groove (15) is opened in a vertical direction and extends to the inside of the vertical sleeve (16) to allow the slide rod (17) of the round rod (18) to be inserted and connected with the bottom of the reinforcing plate (2). The protrusions (12) are provided with three groups on both sides of the controller (14), and the three groups on one side carry the movable support body (13) and the other side only carries the assembly groove (11). The side carrying the movable support body (13) is also provided with a conducting wire shaft to be electrically connected to the controller (14).

4. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The positioning drive member (133) of the vertical block (132) is semicircular in shape and matches the shape of the angle wheel (135). The support rod (134) at one end of the angle wheel (135) carries an electric slider inside to connect with the extension rod (136) to control the extension movement of the extension rod (136).

5. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The positioning drive member (133) is provided with a drive module (1331), the upper end of the drive module (1331) is provided with a connecting rod (1332), and a driving electric wheel (1333) is provided at one end of the connecting rod (1332) that is in communication with the rotating rail (1334), the driving electric wheel (1333) is electrically connected to the drive module (1331) via an electric wire shaft inside the connecting rod (1332), the drive module (1331) can be electrically connected to the electric block (131) via an electric wire shaft on the side, the bottom layer of the rotating rail (1334) is covered by an arc ring (1335), and an insert block (1336) is also fixed to the bottom of the arc ring (1335); The driving module (1331) and the connecting rod (1332) are perpendicular to each other, and a positioning rotating bolt is provided in the center area where the driving electric wheel (1333) and the connecting rod (1332) are connected. The rotating rail (1334) is combined with the driving electric wheel (1333) to limit the rotating area of ​​the angle wheel (135), and the plug block (1336) at the bottom of the arc ring (1335) is rectangular.

6. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The controller (14) is provided with a waterproof cover (141), the waterproof cover (141) covers the surface of the intelligent control chip (142), and the intelligent control chip (142) is embedded in the power-on slot (143), the power-on slot (143) is arranged at the center of the side of the control body (144), and the center of the control body (144) is penetrated by the slide slot (15), the edge surface of the control body (144) carries a separator block (145), the position of the splicing slot (146) is determined by the separator block (145), and the splicing slot (146) carries a center block (147) inside to allow the protrusion (12) to be accurately inserted and spliced; The area of ​​the waterproof cover (141) is consistent with the area of ​​the intelligent control chip (142), and the intelligent control chip (142) is arranged in a parallel position in the power supply slot (143). A solar panel is also arranged on the upper edge of the control body (144). The partition block (145) covers the edge of the splicing slot (146), and the internal center block (147) is in a convex shape and embedded in the inner center of the side of the convex block (12).

7. The flood and debris flow prevention and geological disaster prevention device according to claim 6 is characterized by: The partition block (145) is provided with a welding frame (1451), the welding frame (1451) covers the edge of the solid block (1452), and the upper and lower edges inside the solid block (1452) are both provided with reinforcing blocks (1453) to support the center of the limit plate (1454), the limit plate (1454) is arranged at the center of the solid block (1452) and opens a slide rail to allow the movable restraining block (1455) to slide in parallel; The shape of the welding frame (1451) is adapted to the solid block (1452), and a reinforcing block (1453) is provided in the middle of each of the two limiting plates (1454) and is set in mutually symmetrical positions. The edge of the movable restraining block (1455) contacts the surface of the limiting plate (1454) and is provided in two groups.

8. A flood and debris flow prevention and geological disaster prevention device according to claims 6-7, characterized in that: The control body (144) is provided with four partition blocks (145) at the edge thereof, which open three joint grooves (146); the partition blocks (145) located on both sides of the center carry bidirectional movable restraining blocks (1455); and the partition blocks (145) located at the corner edges carry unidirectional movable restraining blocks (1455).

9. The flood and debris flow prevention and geological disaster prevention device according to claim 1 is characterized by: The reinforcing plate (2) is provided with a locking groove (21), and the locking groove (21) is arranged on the surface of the overlapping plate (22) and is provided at three locations, the number of which matches that of the sliding rod (17). Connecting blocks (23) are connected to both sides of the surface of the overlapping plate (22), and are installed on the lower end of the block body (24) through the connecting blocks (23). A small flow groove (25) is opened in the middle and lower area of ​​the surface of the block body (24); The locking groove (21) is circular and is set in a parallel orientation on the overlapping plate (22). The overlapping plate (22) and the connecting blocks (23) on both sides form a "concave" shape. The flow grooves (25) in the lower middle part of the block (24) are provided with three locations and are square and hollow.

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