Geological disaster treatment system

Abstract

The application relates to a geological disaster control system which comprises a fixed chassis, a clamping assembly, an elastic net and a supporting assembly, the fixed chassis is used for fixed connection with the ground at the foot of a mountain, one part of the clamping assembly is connected with the fixed chassis, the clamping assembly is used for clamping and fixing the side edges of the elastic net, the elastic net is in a spherical shape, the elastic net is provided with a stone outlet, the stone outlet is used for discharging stones, one part of the supporting assembly is connected with the fixed chassis, the part of the supporting assembly away from the fixed chassis is connected with the clamping assembly to support the elastic net, and the fixed chassis, the clamping assembly and the supporting assembly jointly enclose a triangle. In the application, the spherical shape of the elastic net can improve the bearing capacity of the elastic net, the stone outlet can smoothly discharge stones, the accumulation of a large amount of stones is avoided, and the elastic net has the effects of higher bearing capacity and less collapse.

Description

Technical Field

[0001] This application relates to the technical field of geological disaster management, and in particular to a geological disaster management system. Background Technology

[0002] Geological disasters refer to natural disasters caused by geological factors and human activities, including earthquakes, debris flows, landslides, ground subsidence, and volcanic eruptions. Geological disaster management involves taking a series of measures to mitigate or eliminate the impact of geological disasters. Geological disaster management mainly includes pre-disaster prevention and control as well as post-disaster recovery and management. Reasonable methods of geological disaster management play a vital role in protecting life and property and maintaining the ecological environment.

[0003] Currently, some minor geological disasters can be mitigated by taking preventative measures. Roadside rock slopes, especially in mountainous areas, are prone to rockfalls due to geological processes. Protective netting is typically installed at roadside rock slopes to block falling rocks, effectively preventing injuries to pedestrians or disruption to traffic.

[0004] Regarding the aforementioned technologies, due to the continuous falling rocks from the mountain, the impact on the protective netting is significant, and a large amount of rocks accumulate at the bottom of the netting. When the protective netting is subjected to a large amount of rock impact and gravity load due to the accumulation of rocks, there is a problem that the protective netting is prone to collapse and has insufficient load-bearing capacity. Summary of the Invention

[0005] To address the issues of easy collapse and insufficient load-bearing capacity of the aforementioned protective netting, this application provides a geological disaster management system.

[0006] This application provides a geological disaster management system, which adopts the following technical solution:

[0007] A geological disaster management system includes a fixed base frame, a clamping assembly, an elastic net, and a support assembly. The fixed base frame is used to fix and connect to the ground at the foot of the mountain. A portion of the clamping assembly is connected to the fixed base frame and is used to clamp and fix the side of the elastic net. The elastic net is spherical and has a rock outlet for discharging crushed rock. A portion of the support assembly is connected to the fixed base frame, and a portion of the support assembly away from the fixed base frame is connected to the clamping assembly to support the elastic net. The fixed base frame, the clamping assembly, and the support assembly together form a triangle.

[0008] By adopting the above technical solution, the elastic net is used to withstand the impact force of rockfall. The elastic net is spherical, which allows the rebounding rock fragments to collide with each other, thus offsetting the impact force. Furthermore, the rock fragments, under their own weight and the curvature of the spherical surface, can gather at the outlet, facilitating the discharge of accumulated rock fragments and reducing the risk of collapse due to excessive weight load. Normally, a large amount of rock fragments impact the elastic net perpendicularly along the rock slope. If the elastic net were linear, many rocks would continue to impact the net with significant force after rebounding, potentially causing it to collapse under excessive load. The spherical shape of the elastic net allows the rock fragments to rebound in different directions, colliding with each other and continuously consuming their kinetic energy. This reduces the secondary impact force on the elastic net, thereby increasing its load-bearing capacity. Meanwhile, the collisions between the stones allow larger stones to break into smaller pieces, reducing their inertial force when they impact the elastic net again, thus minimizing the secondary impact force on the net. Furthermore, the fixed base, clamping components, and support components together form a triangle; the stability of a triangle further enhances its ability to withstand the impact of rolling stones. The spherical design of the elastic net increases its load-bearing capacity, allowing stones to be smoothly discharged from the outlet and preventing the accumulation of large amounts of gravel.

[0009] Optionally, the clamping assembly is used to clamp the side of the elastic net so that the elastic net is bent into a spherical shape under force, and the elastic net is used to bend and protrude in the direction close to the hillside so that the elastic net can withstand the impact of the hillside gravel, and the stone outlet is opened on both sides and the bottom side along the long side of the elastic net.

[0010] By employing the above technical solution, the clamping component holds the side of the elastic netting, causing it to bend into a spherical shape under force. This clamping component allows the elastic netting to pre-accumulate a certain amount of elastic potential energy. Simultaneously, the bending and bulging towards the hillside increases the load-bearing capacity of the elastic netting. Because the elastic netting tends to bend and bulge towards the fixed base under the impact of gravel, pre-bending it in the opposite direction increases its load-bearing capacity, enabling it to withstand greater impact forces and thus protecting the safety of pedestrians and vehicles on rocky slopes. Furthermore, the spherical shape of the elastic netting facilitates the discharge of gravel from the outlet along the spherical surface.

[0011] Optionally, the clamping assembly includes a clamping frame, the inner sidewall of which has a clamping opening, an elastic block is fixedly installed on the clamping frame, the peripheral wall of the elastic block is fixedly connected to the inner wall of the clamping opening, the side of the elastic mesh passes through the clamping opening and abuts against one side of the elastic block, and one side of the clamping frame is connected to the fixed base frame.

[0012] By adopting the above technical solution, the clamping assembly can effectively fix the elastic net through the clamping frame, and at the same time, it can compress the elastic net, causing it to bend and possess a certain elastic potential energy. Installing an elastic block inside the clamping opening allows the elastic net to vibrate upon impact. If the elastic net is fixedly connected to the clamping frame, the clamping frame is easily damaged by excessive force when the elastic net is impacted by gravel. The elastic block also buffers the tension of the elastic net on the clamping frame, further ensuring that the elastic net can perform its function effectively.

[0013] Optionally, one side of the clamping frame is rotatably connected to the fixed base frame, and the support assembly includes a telescopic strut. One end of the telescopic strut is rotatably connected to the clamping frame, and the other end of the telescopic strut is rotatably connected to the fixed base frame. The telescopic strut can extend and retract to cause the elastic net to vibrate. The fixed base frame, the clamping frame, and the telescopic strut together form a triangle.

[0014] By adopting the above technical solution, the support component is set as a telescopic strut. This telescopic movement further reduces the stress on the elastic net, thereby reducing the possibility of collapse. When gravel impacts the elastic net, the net vibrates continuously under the impact, causing the telescopic strut to extend and retract, further increasing the vibration amplitude. This large-amplitude vibration makes the impacting gravel more disordered; upon rebound, the disorder of the gravel better offsets its kinetic energy, thus reducing its impact on the elastic net. Furthermore, the vibration of the elastic net caused by the telescopic strut allows stones that ultimately remain within the net to fall more quickly from the outlet, further reducing the load it bears.

[0015] Optionally, the telescopic support rod includes a sleeve, a tube, and an elastic element. The sleeve passes through the tube, and the sleeve and the tube are connected by the elastic element. The end of the sleeve away from the elastic element is rotatably connected to the clamping assembly, and the end of the tube away from the elastic element is rotatably connected to the fixed base frame.

[0016] By adopting the above technical solution, the retractable strut, through the combination of sleeve, tube, and elastic element, can further improve the vibration effect of the strut. Utilizing the elastic potential energy of the elastic element allows for more rational retractable movement between the sleeve and tube. When there is no impact from gravel, the strut can effectively support the elastic net; when there is impact from gravel, the elastic potential energy of the elastic element further enhances the vibration effect.

[0017] Optionally, a collection component is included for collecting debris from landslides. The collection component is disposed on the side of the elastic net near the fixed base frame and is detachably connected to the fixed base frame.

[0018] By adopting the above technical solution, the collection component is used to collect debris from landslides. Organized collection of the debris allows for further recycling for use as building materials or other purposes. Simultaneously, the detachable connection between the collection component and the fixed base facilitates the cleanup and recycling of landslide debris after geological disasters.

[0019] Optionally, the collection assembly includes a collection net, a collection rack, and a collection box. The collection net is located on the side of the elastic net near the fixed base. The collection net is curved and protrudes towards the fixed base. The side of the collection net is fixedly connected to the collection rack. The collection rack is detachably connected to the fixed base. The collection box is installed on the collection net near the fixed base.

[0020] By adopting the above technical solution, the collection component is equipped with a collection net, and the collection net is curved and protrudes towards the fixed base frame, which improves the collection effect of the crushed stone. After the crushed stone slides down, it enters the collection net through the outlet of the elastic net. Because the collection net is arc-shaped, the crushed stone can further slide down the arc surface of the collection net into the collection box, which on the one hand avoids a large accumulation of crushed stone at the outlet, and on the other hand facilitates the recycling of the crushed stone.

[0021] Optionally, the collection net includes a first collection net and a second collection net. The first collection net has a first filter hole, and the second collection net has a second filter hole. The diameter of the first filter hole is larger than that of the second filter hole. The sides of both the first collection net and the second collection net are fixedly installed on the collection frame. At least two collection boxes are provided, one installed on the first collection net near the fixed base frame, and the other installed on the second collection net near the fixed base frame.

[0022] By adopting the above technical solution, the collection net, including a first collection net and a second collection net, can effectively classify and filter gravel of different sizes. The first collection net can collect large-sized gravel, and the second collection net can collect small-sized gravel. By separating gravel of different sizes, it is easier to recycle and reuse gravel, reducing the need for further screening and classification after recycling.

[0023] Optionally, an early warning component is included, which is disposed at the fixed base frame. When the early warning component detects that the fixed base frame is subjected to a preset pressure value, the early warning component activates an early warning.

[0024] By adopting the above technical solution, the early warning component can promptly issue an alarm when rockslides occur. This alarm warns pedestrians and vehicles that rocks are falling ahead and should take a detour. Therefore, it can protect the safety of pedestrians and vehicles.

[0025] Optionally, the early warning component includes a pressure sensor, a sound alarm, and a control module. The control module is electrically connected to the pressure sensor and the sound alarm, respectively. Both the pressure sensor and the sound alarm are installed on the fixed base. When the pressure sensor detects a preset pressure value, the pressure sensor transmits a signal to the control module, and the control module controls the sound alarm to activate the alarm.

[0026] By adopting the above technical solution, the pressure sensor and audible alarm can effectively serve as a warning. When gravel impacts the elastic net, the elastic net transmits the impact force to the support and clamping components, which then transmit the force to the fixed base frame, which in turn transmits the force to the pressure sensor. When the pressure value of the pressure sensor reaches a preset level, the audible alarm is triggered, effectively alerting pedestrians and vehicles passing by.

[0027] In summary, this application includes at least one of the following beneficial technical effects:

[0028] 1. The spherical design of the elastic net can improve its load-bearing capacity, and the stone outlet can smoothly discharge stones, avoiding the collapse of the elastic net due to the accumulation of a large amount of gravel;

[0029] 2. The clamping component and the support component can effectively fix the elastic net. The clamping component causes the elastic net to bend, thereby increasing its elastic potential energy, while the support component causes the elastic net to vibrate, thus better expelling the gravel.

[0030] 3. The collection component can systematically recycle and reuse debris from landslides, while the early warning component can promptly alert pedestrians and vehicles passing by, protecting their safety. Attached Figure Description

[0031] Figure 1 This is a schematic diagram of the geological disaster management system in this embodiment.

[0032] Figure 2 This is a cross-sectional view of the geological disaster management system in this embodiment.

[0033] Figure 3 yes Figure 2 Enlarged diagram of part A in the middle.

[0034] Figure 4 This is an exploded view of the retractable strut in this embodiment.

[0035] Explanation of reference numerals in the attached drawings: 1. Fixed base frame; 2. Clamping assembly; 21. Clamping frame; 211. Clamping opening; 22. Elastic block; 3. Elastic net; 31. Folded edge; 32. Stone outlet; 4. Support assembly; 41. Telescopic support rod; 411. Sleeve rod; 412. Sleeve; 413. Elastic element; 5. Collection assembly; 51. Collection net; 511. First collection net; 512. Second collection net; 513. First filter hole; 514. Second filter hole; 52. Collection rack; 53. Collection box; 6. Early warning assembly; 61. Pressure sensor; 62. Sound alarm; 63. Control module. Detailed Implementation

[0036] The following is in conjunction with the appendix Figure 1-4 This application will be described in further detail.

[0037] This application discloses a geological disaster management system.

[0038] Reference Figure 1 A geological disaster management system includes a fixed base frame 1, a clamping assembly 2, an elastic net 3, a support assembly 4, a collection assembly 5, and an early warning assembly 6. The clamping assembly 2 clamps the side of the fixed elastic net 3. A portion of the clamping assembly 2 is rotatably connected to the fixed base frame 1, and a portion of the clamping assembly 2 away from the fixed base frame 1 is rotatably connected to the support assembly 4. The support assembly 4 is rotatably connected to the fixed base frame 1. The fixed base frame 1, clamping assembly 2, and support assembly 4 together form a triangle. The collection assembly 5 is installed on the fixed base frame 1, located on the side of the elastic net 3 away from the hillside. The early warning assembly 6 is installed on the fixed base frame 1.

[0039] Reference Figure 2 and Figure 3The fixed base frame 1 is fixedly connected to the ground at the foot of the mountain by anchor bolts. To further strengthen the fixing strength between the fixed base frame 1 and the ground, the depth of the anchor bolts inserted into the ground can be increased. The clamping assembly 2 includes a clamping frame 21, which is square in shape. The inner side wall of the clamping frame 21 has an elongated clamping opening 211. An elastic block 22 is fixedly installed at the clamping opening 211. The elastic block 22 can be made of rubber. The peripheral wall of the elastic block 22 is fixedly connected to the inner wall of the clamping opening 211, which can be done by adhesive bonding. The elastic mesh 3 has folded edges 31 on its sides. The four folded edges 31 of the elastic mesh 3 extend into the clamping opening 211 and abut against one side of the elastic block 22. The four sides of the clamping frame 21 apply a certain force to the elastic net 3 beforehand. Under the action of the clamping frame 21, the elastic net 3 bends and protrudes towards the hillside to withstand the impact of gravel from the hillside. Stone outlets 32 are provided on both sides and the bottom side of the elastic net 3 along its long side near the clamping frame 21. These outlets 32 can be a single, continuous line along the side or multiple outlets in segments. The elastic net 3 can be made of wire mesh.

[0040] Specifically, the spherical shape of the elastic net 3 facilitates the sliding of gravel. When gravel slides down the mountain, a large number of gravel impact the spherical surface of the elastic net 3 and bounce in different directions under the action of the elastic net 3. During the continuous rebound process, the rebounded gravel will continuously collide with each other, thereby reducing the secondary impact of the gravel on the elastic net 3. At the same time, the spherical shape of the elastic net 3 also allows the gravel to slide down the spherical surface under its own gravity to the outlet 32. The pre-bending of the elastic net 3 by the clamping frame 21 allows the elastic net 3 to accumulate a certain amount of elastic potential energy, enabling the elastic net 3 to withstand greater impact loads. The elastic block 22 can further reduce the tension of the elastic net 3 on the clamping frame 21. In addition, when the elastic net 3 is subjected to the impact of gravel sliding down the mountainside, the elastic net 3 can have a certain amount of movement space within the clamping opening 211 as the elastic block 22 is compressed, allowing the elastic net 3 to vibrate. During the vibration process, it is beneficial for the gravel to fall out of the outlet 32 ​​quickly.

[0041] Reference Figure 1 and Figure 4The support assembly 4 includes telescopic struts 41, with at least two telescopic struts 41 supporting an elastic net 3. Each telescopic strut 41 includes a sleeve 411, a sleeve 412, and an elastic element 413. The sleeve 411 passes through the sleeve 412, and the sleeve 411 and sleeve 412 are connected by the elastic element 413. The elastic element 413 can be a spring, with one end fixedly connected to the inner wall of the sleeve 412 and the other end fixedly connected to the end of the sleeve 411 that passes through the sleeve 412. The end of the sleeve 411 away from the elastic element 413 is rotatably connected to the clamping frame 21. The end of the sleeve 412 away from the elastic element 413 is rotatably connected to the fixed base frame 1. The side of the clamping frame 21 closest to the foot of the slope is rotatably connected to the fixed base frame 1. This rotatable connection can be achieved by fixing an ear plate and a rotating shaft to the fixed base frame 1. The fixed base frame 1, the clamping frame 21, and the telescopic support rod 41 together form a triangle.

[0042] Specifically, when loose rocks slide down the mountain, they first come into contact with the spherical surface of the elastic net 3 and rebound in different directions under the action of the spherical surface. At this time, the elastic net 3 vibrates under the impact force of the loose rocks and rotates around one side of the fixed base frame 1. During the rotation, the elastic net 3 drives the clamping frame 21 to rotate, and the rotation of the clamping frame 21 compresses the telescopic support rod 41 to move telescopically. The telescopic support rod 41 moves through the sleeve 412, the elastic element 413 and the sleeve rod 411. During the movement, the elastic element 413 is continuously compressed and stretched. Because the elastic net 3 can move significantly under the action of the telescopic support rod 41, it can effectively allow loose rocks to fall out of the rock outlet 32 ​​quickly, thereby reducing the risk of the elastic net 3 collapsing due to the large amount of loose rocks accumulating on it and bearing a large gravity load.

[0043] Reference Figure 1The collection component 5 includes a collection net 51, a collection rack 52, and a collection box 53. The collection net 51 includes a first collection net 511 and a second collection net 512. The first collection net 511 has a first filter hole 513, and the second collection net 512 has a second filter hole 514. The diameter of the first filter hole 513 is larger than the diameter of the second filter hole 514. The first collection net 511 is located on the side of the elastic net 3 closer to the fixed base 1, and the second collection net 512 is located on the side of the first collection net 511 away from the elastic net 3. Both the first collection net 511 and the second collection net 512 are curved and protrude towards the fixed base 1. The collection rack 52 supports the collection net 51 in a triangular shape. The sides of the first collection net 511 and the second collection net 512 are fixedly connected to the collection rack 52, either by binding or by other means. The collection rack 52 is detachably connected to the fixed base 1, either by threaded connection. Collection boxes 53 are provided near the fixed base frame 1 in both the first collection net 511 and the second collection net 512. The collection boxes 53 are used to collect the filtered gravel.

[0044] Specifically, when a geological disaster occurs on the mountain causing rockfall, the rocks will slide from the outlet 32 ​​of the elastic net 3 into the first collection net 511 and the second collection net 512 of the collection component 5. The aperture size of the first filter hole 513 of the first collection net 511 is larger than the aperture size of the second filter hole 514 of the second collection net 512. The first collection net 511 collects larger-sized rocks, and the second collection net 512 collects smaller-sized rocks, thus effectively performing preliminary screening and classification of the rocks. Finally, the rocks fall along the curved surface of the first collection net 511 and then the second collection net 512 into the collection box 53. After the geological disaster is over, relevant personnel can come to the site to collect the rocks in the collection box 53. Since the rocks have already undergone preliminary screening and classification through the first collection net 511 and the second collection net 512, it is more convenient for relevant personnel to recycle and reuse the rocks as building materials or for other purposes.

[0045] Reference Figure 1 The warning component 6 includes a pressure sensor 61, an audible alarm 62, and a control module 63. The control module 63 is electrically connected to both the pressure sensor 61 and the audible alarm 62. The fixed base 1 has two layers, with the pressure sensor 61 fixedly installed between the two layers. The pressure sensor 61 is located at the four corners of the fixed base 1. The audible alarm 62 and the control module 63 are both installed on the fixed base 1 near the telescopic support rod 41. To protect the audible alarm 62 and the control module 63, a protective cover can be installed around them. The protective cover can have holes to prevent it from blocking the sound of the audible alarm 62.

[0046] Specifically, when the elastic net 3 is subjected to impact, it transmits the force to the telescopic support rod 41 and the clamping frame 21. The telescopic support rod 41 and the clamping frame 21 then transmit the force to the fixed base frame 1, causing the fixed base frame 1 to apply pressure to the pressure sensor 61. When the pressure sensor 61 detects a preset pressure value, it transmits the signal data to the control module 63. The control module 63 then controls the audible alarm 62 to activate an alarm to alert nearby pedestrians and vehicles. When the geological disaster ends, the pressure value of the pressure sensor 61 returns to normal. At this time, the control module 63 controls the audible alarm 62 to turn off, and the road is safe to pass.

[0047] The implementation principle of this embodiment is as follows: When a minor geological disaster occurs on a mountain slope, causing rocks to slide down, the rocks impact the elastic net 3. The elastic net 3 causes the clamping component 2 to vibrate, thereby putting force on the fixed base frame 1. The warning component 6 at the fixed base frame 1 issues an alarm to remind pedestrians and vehicles in the vicinity to pay attention to safety and prohibit them from entering the road section. When the rocks impact, the elastic net 3, through its arc shape, causes the rocks to rebound in different directions, thereby causing the rocks to continuously collide with each other and consume their kinetic energy and gravitational potential energy. The clamping component 2 and the support component 4 fix the elastic net 3 and increase the vibration amplitude of the elastic net 3, so that the rocks quickly enter the collection component 5 from the rock outlet 32. When the geological disaster ends, the warning component 6 stops functioning. Relevant personnel can use the collection component 5 to recover the rocks that have fallen from the mountain for building materials or other uses.

[0048] The above are preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made to the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A geological disaster management system, characterized by: The utility model provides a kind of mountain slope protection device, including fixed chassis (1), clamping assembly (2), elastic net (3) and support assembly (4), the fixed chassis (1) is used to be fixedly connected with the ground at mountain foot, a part of the clamping assembly (2) is connected with the fixed chassis (1), the clamping assembly (2) is used to clamp the side edge of the elastic net (3), the elastic net (3) is spherically, the elastic net (3) is equipped with stone outlet (32), the stone outlet (32) is used for the discharge of broken stone, a part of the support assembly (4) is connected with the fixed chassis (1), the part of the support assembly (4) away from the fixed chassis (1) is connected with the clamping assembly (2) to support the elastic net (3), the fixed chassis (1), the clamping assembly (2) and the support assembly (4) are enclosed into triangle together;The clamping assembly (2) is used to clamp the side edge of the elastic net (3) to make the elastic net (3) force bending into spherical shape, the elastic net (3) is used to bend convex in the direction close to mountain slope to make the elastic net (3) bear the impact of mountain slope broken stone, the stone outlet (32) is equipped in the two sides of the elastic net (3) along the length direction and bottom side;The clamping assembly (2) includes clamping frame (21), the inside side wall of the clamping frame (21) is equipped with clamping mouth (211), the clamping frame (21) is fixedly installed with elastic block (22), the peripheral wall of the elastic block (22) is fixedly connected with the inner wall of the clamping mouth (211), the side edge of the elastic net (3) is arranged in the clamping mouth (211) and is abutted with one side of the elastic block (22), one side of the clamping frame (21) is connected with the fixed chassis (1);One side of the clamping frame (21) is rotatably connected with the fixed chassis (1), the support assembly (4) includes telescopic support rod (41), one end of the telescopic support rod (41) is rotatably connected with the clamping frame (21), the other end of the telescopic support rod (41) is rotatably connected with the fixed chassis (1), the telescopic support rod (41) can be telescopic to make the elastic net (3) vibrate, the fixed chassis (1), the clamping frame (21) and the telescopic support rod (41) are enclosed into triangle together;The telescopic support rod (41) includes sleeve rod (411), sleeve pipe (412) and elastic member (413), the sleeve rod (411) is arranged in the sleeve pipe (412), the sleeve rod (411) is connected with the sleeve pipe (412) by the elastic member (413), the end of the sleeve rod (411) away from the elastic member (413) is rotatably connected with the clamping assembly (2), the end of the sleeve pipe (412) away from elastic member (413) is rotatably connected with the fixed chassis (1).

2. The geological disaster management system of claim 1, wherein: The collecting assembly (5) is arranged on one side of the elastic net (3) close to the fixed base frame (1), and is detachably connected with the fixed base frame (1).

3. The geological disaster management system of claim 2, wherein: The collecting assembly (5) comprises a collecting net (51), a collecting frame (52) and a collecting box (53), the collecting net (51) is arranged on one side of the elastic net (3) close to the fixed base frame (1), the collecting net (51) is arc-shaped, the collecting net (51) is curved and protrudes towards the fixed base frame (1), the side edges of the collecting net (51) are fixedly connected with the collecting frame (52), the collecting frame (52) is detachably connected with the fixed base frame (1), and the collecting box (53) is arranged on the collecting net (51) close to the fixed base frame (1).

4. The geological disaster management system of claim 3, wherein: The collecting net (51) comprises a first collecting net (511) and a second collecting net (512), the first collecting net (511) is provided with first filter holes (513), the second collecting net (512) is provided with second filter holes (514), the first filter holes (513) are larger than the second filter holes (514) in size, the side edges of the first collecting net (511) and the second collecting net (512) are fixedly connected with the collecting frame (52), and the collecting box (53) is arranged at least in two, one is arranged on the first collecting net (511) close to the fixed base frame (1), and the other is arranged on the second collecting net (512) close to the fixed base frame (1).

5. The geological hazard management system of claim 1, wherein: The early warning assembly (6) is arranged on the fixed base frame (1), and when the early warning assembly (6) detects that the fixed base frame (1) is subjected to a preset pressure value, the early warning assembly (6) starts early warning.

6. The geological disaster management system of claim 5, wherein: The early warning assembly (6) comprises a pressure sensor (61), a sound alarm (62) and a control module (63), the control module (63) is electrically connected with the pressure sensor (61) and the sound alarm (62), the pressure sensor (61) and the sound alarm (62) are arranged on the fixed base frame (1), when the pressure sensor (61) detects a preset pressure value, the pressure sensor (61) transmits a signal to the control module (63), and the control module (63) controls the sound alarm (62) to start alarm.

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