Multi-parameter coupled geological disaster monitoring and early warning device

Abstract

The application provides a multi-parameter coupled geological disaster monitoring and early warning device, which comprises a fixing block, parallel plates, a solar panel, a supporting block and an early warning structure. The early warning structure is further improved, and the length of the vertical column is used to enable the capturing module to enter a deeper area of the monitoring area, thereby improving the capturing accuracy of small movements and statics by using depth holding, so as to improve the use intensity of the early warning device. When the capturing module captures a serious geological disaster precursor, the signal transmission body at the upper end of the vertical column can start the slide block to drive the supporting column to slide upward in the vertical column through the pre-set program of the information processor of the signal transmission body, so that the height of the information processor is raised. Therefore, the height is used to improve the mutual induction intensity of the space signal, improve the stability effect of information transmission, and avoid the information loss caused by weak signal.

Description

Technical Field

[0001] This invention relates to the field of disaster early warning technology, and more specifically to a multi-parameter coupled geological disaster monitoring and early warning device. Background Technology

[0002] Geological disasters refer to geological processes or phenomena that cause damage to human life and property and damage the environment, formed under the influence of natural or human factors. In daily life, monitoring and early warning devices can be used to monitor relevant areas in real time. Before a disaster occurs, there are often imperceptible warning signs. These monitoring and early warning devices can capture these warning signs and thus achieve an early warning effect. This can improve the efficiency of evacuation and risk avoidance of people in relevant areas and significantly reduce property and personal losses. In summary, the inventors have found that existing early warning devices have the following main drawbacks: When current early warning devices are used in relatively remote mountainous areas, they are laid flat on the ground. When a disaster precursor occurs, the device needs to capture the signal and transmit the corresponding information. As a result, the signal transmission is easily unstable due to the influence of the region and altitude, which can easily lead to inaccurate positioning and data loss. Therefore, the early warning devices in remote mountainous areas are difficult to provide accurate early warnings due to altitude and signal interference. Summary of the Invention

[0003] The technical solution adopted by the present invention to achieve the technical objective is: a multi-parameter coupled geological disaster monitoring and early warning device, the structure of which includes: a fixed block, a parallel plate, a solar panel, a support block, and an early warning structure. The fixed block is welded to the lower edge of the parallel plate, the upper end of the parallel plate overlaps with the solar panel, the support block is embedded in both sides of the surface of the solar panel, and the early warning structure is installed at the center of the surface of the solar panel through the support block and electrically connected.

[0004] As a further improvement of the present invention, the early warning structure includes a capture module, a vertical column, a bonding plate, an electrified groove, a limiting frame, and a signal transmitter. The capture module is installed at the lower end of the vertical column, and the upper end of the vertical column is fixed to the lower center of the bonding plate. The electrified groove and the lower edge of the bonding plate are integrated. The limiting frame falls into the upper center of the bonding plate. The signal transmitter is embedded in the limiting frame and electrically connected to the solar panel through the electrified groove. The lower end of the signal transmitter is electrically connected to the capture module. The capture module is perpendicular to the vertical column, which is made of stainless steel. The bonding plate is flattened. There is one electrified groove on each side of the lower end of the bonding plate. The edge of the limiting frame coincides with the edge of the signal transmitter.

[0005] As a further improvement of the present invention, the signal transmission body is provided with a slider, a support column, a connecting layer, an assembly block, and an information processor. The slider is installed on the left and right sides of the support column, the support column is fixed to the lower end of the connecting layer, the lower end of the assembly block and the connecting layer are integrated, the information processor is embedded in the internal center of the assembly block, and the information processor is electrically connected to the capture module. There is one slider on each side of the support column, the connecting layer is flattened, and the information processor is square and embedded vertically in the internal center of the assembly block.

[0006] As a further improvement of the present invention, the information processor comprises an adsorption layer, a circuit board body, a signal transceiver module, a positioning module, an intensity sensing module, and a protective sleeve. The adsorption layer is integrally formed with the lower end of the circuit board body. The upper center of the circuit board body is fixedly electrically connected to the signal transceiver module. The positioning module and the intensity sensing module are installed on the left and right sides of the signal transceiver module and electrically connected. The protective sleeve covers the surface of the circuit board body and is spaced to fit the signal transceiver module, the positioning module, and the intensity sensing module. The protective sleeve is exposed on the surface of the assembly block through the circuit board body. The adsorption layer is made of magnetic metal. The bottom layers of the signal transceiver module, the positioning module, and the intensity sensing module on the upper end of the circuit board body are all on the same parallel line. The area of ​​the protective sleeve is the same as the area of ​​the circuit board body and contains a cavity inside.

[0007] As a further improvement of the present invention, the lower end of the protective sleeve is provided with a restraining frame, a through cavity, a fitting wall, a first insert, and a second insert. The center of the restraining frame is penetrated by the through cavity. The fitting wall and the inner wall of the restraining frame are an integral structure. The first and second inserts are respectively installed on the upper and lower ends of the left and right sides of the restraining frame and are on the same vertical line. The restraining frame is vertically connected to the lower end of the protective sleeve and the upper edge of the circuit board body through the first and second inserts. The through cavity of the restraining frame is set in a vertical orientation. The fitting wall is finely polished. The first and second inserts are both solid square shapes and are set in mutually symmetrical orientations.

[0008] As a further improvement of the present invention, the capture module comprises a sensing module, a connecting layer, an insert post, an electrical connection module, a conductive spindle, and a fastener. The upper end of the sensing module and the connecting layer are integrated. The insert post is vertically fixed to the upper end of the sensing module through the connecting layer. The electrical connection module is located at the center of the upper end of the insert post. The conductive spindle is connected to the electrical connection module. The fastener is fixed to the upper end of the conductive spindle and fixedly connected to the lower end of the signal transmitter. The conductive spindle, carrying the fastener, passes through the center of the support post. The sensing module completes the electrical connection with the signal transmitter through the conductive spindle and the fastener of the electrical connection module. The connecting layer of the sensing module is flattened. The insert post is solid and carries the electrical connection spindle inside. The electrical connection module is a small cylindrical shape. The edge of the fastener at the upper end of the conductive spindle has a threaded texture.

[0009] As a further improvement of the present invention, a reinforcing plate, a positioning layer, and an auxiliary insert are added to the lower end of the sensing module. The reinforcing plate and the positioning layer are an integrated structure. The auxiliary insert is fixedly connected to the reinforcing plate through the positioning layer. The reinforcing plate is fixedly connected to the lower surface of the sensing module and overlaps with it. The reinforcing plate is made of carbon steel, and the auxiliary insert is a triangular solid shape.

[0010] Compared with the prior art, the present invention has the following beneficial effects: 1. This invention, through further improvements to the early warning structure, allows the capture module to penetrate deeper into the monitoring area by increasing the length of the vertical column. This increased depth enhances the accuracy of capturing minute movements, thereby improving the usability of the early warning device. Furthermore, when the capture module detects a severe precursor to a geological disaster, the signal transmitter at the top of the vertical column activates a pre-programmed slider to slide the support column upwards within the vertical column, raising the height of the information processor. This height adjustment enhances the mutual induction strength with spatial signals, improving the stability of information transmission and preventing information loss or difficulty in transmission due to weak signals. Consequently, this improves the stability of the early warning device in remote areas.

[0011] 2. With further improvements to the information processor, the present invention enhances the parallel connection stability between the circuit board body and the assembly block through the adsorption layer at the lower end of the circuit board body. Furthermore, the signal transceiver module on the circuit board body can collect information generated by the positioning module, intensity sensing module, and capture module. This multi-module, multi-parameter coordination allows for precise location and determination of the geological disaster intensity in the current area, thus improving the accuracy of the early warning device. Simultaneously, the protective sleeve covers and protects the signal transceiver module, positioning module, and intensity sensing module, preventing damage to components caused by continuous exposure to the elements, thereby improving the overall stability of the early warning device.

[0012] 3. With further improvements to the capture module, the verticality of the sensor module's insertion into the underground area is enhanced by the reinforcing plate and triangular auxiliary insertion body mounted on its lower end. This triangular auxiliary insertion body improves the ease of insertion, allowing the sensor module to be vertically embedded into the vertical column via the insertion post. Subsequently, the electrical connection module and the solid structure of the power supply line complete the electrical connection with the signal transmission unit. Therefore, when the height of the signal transmission module is adjusted, the slack line of the power supply line can be pulled upwards, ensuring the stability of the power supply between components, avoiding power outages during height adjustment, and improving the stability of signal transmission. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of a multi-parameter coupled geological disaster monitoring and early warning device.

[0014] Figure 2 This is a three-dimensional structural diagram of an improved early warning structure.

[0015] Figure 3 This is a schematic diagram of a three-dimensional structure of an improved signal transmission device.

[0016] Figure 4 This is a three-dimensional structural diagram of an improved information processor.

[0017] Figure 5 This is a three-dimensional structural diagram of a newly added component at the lower end of a protective cover.

[0018] Figure 6 This is a three-dimensional structural diagram of an improved capture module.

[0019] Figure 7 This is a three-dimensional structural diagram of a newly added component at the lower end of a sensing module.

[0020] In the diagram: Fixed block-1, Parallel plate-2, Solar panel-3, Support block-4, Early warning structure-5, Detection module-51, Vertical column-52, Adhesive plate-53, Power channel-54, Limiting frame-55, Signal transmitter-56, Slider-561, Support column-562, Connecting layer-563, Assembly block-564, Information processor-565, Adsorption layer-a1, Circuit board body-a2, Signal transceiver module- a3, Positioning Module - a4, Intensity Sensing Module - a5, Protective Sleeve - a6, Restraint Frame - a61, Through Cavity - a62, Adhesive Wall - a63, Insert Block No. 1 - a64, Insert Block No. 2 - a65, Sensing Module - 511, Connecting Layer - 512, Through Column - 513, Electrical Connection Module - 514, Through Wire Spindle - 515, Fastening Solid - 516, Reinforcing Plate - b1, Positioning Layer - b2, Auxiliary Through Body - b3. Detailed 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 a multi-parameter coupled geological disaster monitoring and early warning device. Its structure includes a fixing block 1, a parallel plate 2, a solar panel 3, a support block 4, and an early warning structure 5. The fixing block 1 is welded to the lower edge of the parallel plate 2. The upper end of the parallel plate 2 overlaps with the solar panel 3. The support block 4 is embedded in both sides of the surface of the solar panel 3. The early warning structure 5 is installed at the center of the surface of the solar panel 3 through the support block 4 and is electrically connected.

[0023] The warning structure 5 includes a capture module 51, a vertical column 52, a bonding plate 53, an electrical groove 54, a limiting frame 55, and a signal transmitter 56. The capture module 51 is installed at the lower end of the vertical column 52, and the upper end of the vertical column 52 is fixed to the lower center of the bonding plate 53. The electrical groove 54 is integrated with the lower edge of the bonding plate 53. The limiting frame 55 is located at the upper center of the bonding plate 53. The signal transmitter 56 is embedded in the limiting frame 55 and is electrically connected to the solar panel 3 through the electrical groove 54. The lower end of the signal transmitter 56 is electrically connected to the capture module 51. The capture module 51 and the vertical column 52 are perpendicular to each other. The vertical column 52 is made of stainless steel. The bonding plate 53 is flattened. There is one electrical groove 54 on each side of the lower end of the bonding plate 53. The edges of the limiting frame 55 and the signal transmitter 56 overlap. The capture module 51, being perpendicular to the vertical column 52, can stably penetrate vertically into the ground to deeply capture early signs of disasters. The vertical column 52, with its rust-proof design, can prevent corrosion from reducing its service life and affecting the normal use of components. The bonding plate 53, with its flattened design, can prevent tilting after connecting with components. The number of power-conducting grooves 54 can match the number of components in two locations. The limiting frame 55 can determine the position of the signal transmitter 56 based on its own location.

[0024] The signal transmission body 56 includes a slider 561, a support column 562, a connecting layer 563, an assembly block 564, and an information processor 565. The slider 561 is installed on the left and right sides of the support column 562. The support column 562 is fixed to the lower end of the connecting layer 563. The lower end of the assembly block 564 is integrated with the connecting layer 563. The information processor 565 is embedded in the center of the assembly block 564 and is electrically connected to the capture module 51. One slider 561 is provided on each of the left and right sides of the support column 562. The connecting layer 563 is flattened. The information processor 565 is square and is embedded vertically in the center of the assembly block 564. The slider 561 can stably drive the support column 562 to slide up and down by its own position. The connecting layer 563 can improve the vertical connection stability between the assembly block 564 and the support column 562 by its flattened shape. The information processor 565 can be adapted to the shape of the assembly block 564 by its square shape.

[0025] The information processor 565 includes an adsorption layer a1, a circuit board body a2, a signal transceiver module a3, a positioning module a4, an intensity sensing module a5, and a protective sleeve a6. The adsorption layer a1 is integrally formed with the lower end of the circuit board body a2. The upper center of the circuit board body a2 is fixedly electrically connected to the signal transceiver module a3. The positioning module a4 and the intensity sensing module a5 are installed on the left and right sides of the signal transceiver module a3 and electrically connected. The protective sleeve a6 covers the surface of the circuit board body a2 and is spaced to fit the signal transceiver module a3, the positioning module a4, and the intensity sensing module a5. The protective sleeve a6 is exposed on the surface of the assembly block 564 through the circuit board body a2. The adsorption layer a1 is made of magnetic metal. The bottom layers of the signal transceiver module a3, the positioning module a4, and the intensity sensing module a5 on the upper end of the circuit board body a2 are all on the same parallel line. The area of ​​the protective sleeve a6 is the same as that of the circuit board body a2 and contains a cavity inside. The adsorption properties of the adsorption layer a1 improve the overlap and firmness between the circuit board body a2 and the components. The signal transceiver module a3, positioning module a4, and intensity sensing module a5 on the upper end of the circuit board body a2 can prevent poor contact and unstable signal transmission by being on the same parallel line. The protective sleeve a6 can cover and protect the signal transceiver module a3, positioning module a4, and intensity sensing module a5 according to its own area and internal cavity.

[0026] The protective sleeve a6 has a restraining frame a61, a through cavity a62, a fitting wall a63, a first insert a64, and a second insert a65 at its lower end. The restraining frame a61 is penetrated by the through cavity a62. The fitting wall a63 is integrated with the inner wall of the restraining frame a61. The first and second inserts a64 and a65 are respectively installed on the upper and lower ends of the left and right sides of the restraining frame a61 and are on the same vertical line. The restraining frame a61 is vertically connected to the lower end of the protective sleeve a6 and the upper edge of the circuit board body a2 through the first and second inserts a64 and a65. The through cavity a62 of the restraining frame a61 is set in a vertical orientation. The fitting wall a63 is finely polished. The first and second inserts a64 and a65 are solid square shapes and are set in a symmetrical orientation. The restraining frame a61, through the vertical cavity a62, allows the component to pass through the restraining frame a61 in a vertical orientation. The fitting wall a63, through its finely polished shape, can avoid scratching the surface of the component after contact with it. The first and second inserts a64 and a65 can improve the parallel connection strength with the component according to their positions.

[0027] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The solar panel 3 of the geological disaster monitoring and early warning device can be installed in a specific monitoring area through the fixing block 1 at the lower end of the parallel plate 2, so that the solar panel 3 can receive sunlight from the space and convert it into electrical energy to power the early warning structure 5 in the support block 4. Thus, the early warning structure 5 can monitor the current geographical area in real time according to the location of the parallel plate 2, thereby capturing the precursors of geological disasters and achieving the effect of early warning. Second: The bonding plate 53 of the early warning structure 5 can be embedded with the support block 4 through the power groove 54, so that the support block 4 can be connected to the solar panel 3. Then, the limiting frame 55 at the upper end of the bonding plate 53 can determine the position of the signal transmitter 56, so that the signal transmitter 56 can be kept on the same vertical line as the vertical column 52. For this purpose, the capture module 51 can work with the power of the solar panel 3. At the same time, the capture module 51 can be inserted into the ground in a straight line with the vertical column 52 to improve the depth of monitoring. Therefore, the capture module 51 can capture subtle precursor movements according to its own depth, so as to improve the monitoring accuracy of the monitoring device. Finally, if the corresponding precursor is captured, the signal can be sent to a specific terminal through the signal transmitter 56 to complete the early warning. Third: The support column 562 of the signal transmission body 56 can drive the assembly block 564 to slide up and down inside the vertical column 52 through the sliders 561 on the left and right sides. When the capture module 51 detects a slight precursor, the information processor 565 of the signal transmission body 56 will activate the slider 561 to work, thereby driving the support column 562 to slide up from the vertical column 62. For this purpose, the height of the information processor 565 inside the assembly block 564 is adjusted, thereby increasing the contact area between the information processor 565 and the spatial signal. Therefore, it can avoid the unstable signal transmission caused by remote areas and low terrain, and completely avoid data loss due to weak signal during transmission. This can improve the stability of the early warning device in terms of early warning and information transmission. Fourth: The lower end of the circuit board body a2 of the information processor 565 can improve the parallel fixation with the inside of the assembly block 564 through the adsorption layer a1. Then, the positioning module a4 and intensity sensing module a5 at the upper end of the circuit board body a2 can combine with the capture module 51 to accurately locate and monitor the precursors of geological disasters. Finally, all the information is fed into the signal transceiver module a3, so that the signal transceiver module a3 can calculate the specific location, intensity, and range of impact, thereby improving the accuracy of early warning before the disaster and improving the efficiency of emergency evacuation. Finally, the circuit board body a2 can be covered and protected by the upper protective sleeve a6, thereby ensuring that the signal transceiver module a3, positioning module a4, and intensity sensing module a5 will not be corroded by spatial water molecules, improving the operational stability between components. Fifth: The restraining frame a61 at the lower end of the protective sleeve a6 can allow the signal transceiver module a3, positioning module a4, and intensity sensing module a5 at the center of the surface of the circuit board body a2 to pass through the central cavity a62. Then, the finely polished bonding wall a63 is used to overlap with them to prevent edge scratches during protection. Subsequently, the first and second inserts a64 and a65 at the upper and lower edges of the restraining frame a61 can be vertically connected to the lower end of the protective sleeve a6 and the surface edge of the circuit board body a2 through a vertical insertion effect, thereby achieving a stable splicing effect and facilitating subsequent disassembly and maintenance. Example

[0028] Figures 6 to 7 As shown: This invention provides a multi-parameter coupled geological disaster monitoring and early warning device. Its structure includes a sensing module 51, a connecting layer 512, an insert post 513, an electrical connection module 514, a conductive spool 515, and a fastener 516. The upper end of the sensing module 511 is integrated with the connecting layer 512. The insert post 513 is vertically fixed to the upper end of the sensing module 511 through the connecting layer 512. The electrical connection module 514 is located at the center of the upper end of the insert post 513. The conductive spool 515 is connected to the electrical connection module 514. The fastener 516 is fixed to the upper part of the conductive spool 515 and... The lower end of the signal transmitter 56 is fixedly connected to the conductive spindle 515, which carries the fastener 516 and passes through the center of the support column 562. The sensing module 511 completes the electrical connection with the signal transmitter 56 through the conductive spindle 515 and the fastener 516 of the electrical connection module 514. The connecting layer 512 of the sensing module 511 is flat, the insert column 513 is solid and carries the electrical connection spindle inside, the electrical connection module 514 is a small cylindrical shape, and the edge of the fastener 516 at the upper end of the conductive spindle 515 has threaded texture. The sensing module 511, with its flattened shape, improves the parallel connection with the component and prevents tilting. The through-post 513, with its solid shape and internal electrical connection shaft, improves the connection strength and electrical stability with the component. The electrical connection module 514, with its shape, matches the shape of one end of the energized lower ring 515. Furthermore, the threaded fastener 516 carried on the upper end of the energized lower ring 515 can use the threaded connection to improve the connection strength with the component.

[0029] The sensing module 511 is further provided with a reinforcing plate b1, a positioning layer b2, and an auxiliary insert b3 at its lower end. The reinforcing plate b1 and the positioning layer b2 are an integrated structure. The auxiliary insert b3 is fixedly connected to the reinforcing plate b1 through the positioning layer b2. The reinforcing plate b1 is fixedly connected to the lower surface of the sensing module 511 and overlaps with it. The reinforcing plate b1 is made of carbon steel, and the auxiliary insert b3 is a solid triangular shape. The reinforcing plate b1 can improve its strength due to its high hardness and prevent deformation during use. The auxiliary insert b3 can assist the component in inserting into the underground through its shape.

[0030] The specific functions and operation procedures of this embodiment are as follows: In this invention, First: The sensing module 511 of the capture module 51 can detect subtle precursors inside the ground through its own electrical energy sensing, thus improving its monitoring effect. Then, the connecting layer 512 of the sensing module 511 can be connected to the insertion post 513, and then the insertion post 513 can be embedded in the interior of the vertical post 52. At the same time, the electrical connection module 514 and the power-conducting spindle 515 at the upper end of the insertion post 513 can penetrate through the center of the vertical post 52. Finally, the power-conducting spindle 515 can be fixedly connected to the signal transmitter 56 by using the fastener 516. The threaded connection can prevent power failure when the height of the signal transmitter 56 is adjusted, improving the overall power-conducting stability of the components. Then, when the height of the signal transmitter 56 is adjusted upward, it can drag the remaining line of the power-conducting spindle 515 to rise, preventing the power-conducting spindle 515 from automatically falling off during the rise, improving the stability of the mutual power-conducting operation between components, and avoiding data loss during signal transmission. Second: The reinforcing plate b1 at the lower end of the sensing module 511 can be fixedly connected to the auxiliary insert body b3 through the positioning layer b2, so that the lower end of the sensing module 511 can improve the hardness of its bottom through the reinforcing plate b1, preventing deformation caused by continuous impact from stones when entering the ground. At the same time, the triangular solid auxiliary insert body b3 can be vertically inserted according to its own shape, thereby improving the verticality and convenience of the sensing module 511 entering the ground.

[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. A multi-parameter coupled geological disaster monitoring and early warning device, the structure of which includes: The fixed block (1), parallel plate (2), solar panel (3), support block (4), and early warning structure (5) are characterized in that: the fixed block (1) is welded to the lower edge of the parallel plate (2), the upper end of the parallel plate (2) overlaps with the solar panel (3), the support block (4) is embedded in both sides of the surface of the solar panel (3), and the early warning structure (5) is installed at the center of the surface of the solar panel (3) through the support block (4) and electrically connected. The warning structure (5) includes a capture module (51), a vertical column (52), a bonding plate (53), a power channel (54), a limiting frame (55), and a signal transmitter (56). The capture module (51) is installed at the lower end of the vertical column (52). The upper end of the vertical column (52) is fixed to the lower center of the bonding plate (53). The power channel (54) and the lower edge of the bonding plate (53) are integrated. The limiting frame (55) falls into the upper center of the bonding plate (53). The signal transmitter (56) is embedded in the limiting frame (55) and connected to the solar panel (3) through the power channel (54). The lower end of the signal transmitter (56) is connected to the capture module (51).

2. The multi-parameter coupled geological disaster monitoring and early warning device according to claim 1, characterized in that: The signal transmission body (56) is provided with a slider (561), a support column (562), a connecting layer (563), an assembly block (564), and an information processor (565). The slider (561) is installed on the left and right sides of the support column (562). The support column (562) is fixed to the lower end of the connecting layer (563). The lower end of the assembly block (564) is integrated with the connecting layer (563). The information processor (565) is embedded in the center of the assembly block (564). The information processor (565) is electrically connected to the capture module (51).

3. The multi-parameter coupled geological disaster monitoring and early warning device according to claim 2, characterized in that: The information processor (565) is provided with an adsorption layer (a1), a circuit board body (a2), a signal transceiver module (a3), a positioning module (a4), an intensity sensing module (a5), and a protective sleeve (a6). The adsorption layer (a1) and the lower end of the circuit board body (a2) are an integral structure. The upper center of the circuit board body (a2) is fixedly electrically connected to the signal transceiver module (a3). The positioning module (a4) and the intensity sensing module (a5) are installed on the left and right sides of the signal transceiver module (a3) ​​and electrically connected. The protective sleeve (a6) covers the surface of the circuit board body (a2) and is spaced to the signal transceiver module (a3), the positioning module (a4), and the intensity sensing module (a5). The protective sleeve (a6) is exposed on the surface of the assembly block (564) through the circuit board body (a2).

4. The multi-parameter coupled geological disaster monitoring and early warning device according to claim 3, characterized in that: The lower end of the protective sleeve (a6) is provided with a restraining frame (a61), a through cavity (a62), a fitting wall (a63), a first insert (a64), and a second insert (a65). The center of the restraining frame (a61) is penetrated by the through cavity (a62). The fitting wall (a63) and the inner wall of the restraining frame (a61) are an integrated structure. The first and second inserts (a64 and a65) are respectively installed on the upper and lower ends of the left and right sides of the restraining frame (a61) and are on the same vertical line. The restraining frame (a61) is vertically connected to the lower end of the protective sleeve (a6) and the upper edge of the circuit board body (a2) through the first and second inserts (a64 and a65).

5. The multi-parameter coupled geological disaster monitoring and early warning device according to claim 1, characterized in that: The capture module (51) includes a sensing module (511), a connecting layer (512), an insert post (513), an electrical connection module (514), a conductive spindle (515), and a fastener (516). The upper end of the sensing module (511) and the connecting layer (512) are integrated. The insert post (513) is vertically fixed to the upper end of the sensing module (511) through the connecting layer (512). The electrical connection module (514) rests at the center of the upper end of the insert post (513). The communication wire spindle (515) is connected to the electrical connection module (514). The fastener (516) is fixed to the upper part of the communication wire spindle (515) and fixedly connected to the lower part of the signal transmitter (56). The communication wire spindle (515) carrying the fastener (516) passes through the center of the support column (562). The sensing module (511) completes the electrical connection with the signal transmitter (56) through the communication wire spindle (515) and the fastener (516) of the electrical connection module (514).

6. The multi-parameter coupled geological disaster monitoring and early warning device according to claim 5, characterized in that: The lower end of the sensing module (511) is newly provided with a reinforcing plate (b1), a positioning layer (b2), and an auxiliary insert (b3). The reinforcing plate (b1) and the positioning layer (b2) are an integrated structure. The auxiliary insert (b3) is fixedly connected to the reinforcing plate (b1) through the positioning layer (b2). The reinforcing plate (b1) is fixedly connected to the lower surface of the sensing module (511) and overlaps with each other.

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