A hydrogeological exploration device for high-pressure water disaster prevention and control

Abstract

The present invention discloses a hydrogeological exploration device for high-pressure water hazard prevention and control, wherein a harness receiving assembly is connected to the bottom wall of the connector, the drive assembly is connected to the harness receiving assembly, and a pulley limit assembly is installed at the lower end of the support seat; the harness receiving assembly includes a drive rod, the upper end of the drive rod is movably connected to the bottom wall of the connector, a harness disc is fixedly installed on the drive rod, and the harness disc is provided with multiple groups. The present invention belongs to the field of mine safety technology, and more particularly to a hydrogeological exploration device for high-pressure water hazard prevention and control, which can simultaneously perform multiple groups of exploration on the water level of groundwater to increase the accuracy of exploration, and can also achieve the technical effects of sampling at different depths, multiple groups of sampling at the same depth, and multiple groups of sampling at the same depth in another area of ​​groundwater.

Description

Technical Field

[0001] The invention belongs to the technical field of mine safety, and in particular relates to a hydrogeological exploration device for high-pressure water hazard prevention and control. Background Art

[0002] As the depth of coal mining in my country increases, the problem of high-pressure water hazards has become increasingly prominent. The occurrence of high-pressure water hazards will lead to the destruction of the mine and the ground hydrogeological environment, which will not only cause property losses, but also threaten the lives of personnel. Therefore, the research on the prevention and control technology of high-pressure water hazards in deep mines is of great significance; in deep mines, groundwater often exists under pressure. When the mine is mined, the groundwater is affected by the pressure and will flow into the mine, increasing the osmotic pressure of the mine and forming high-pressure water hazards. In addition, the deformation and fracture of rock formations caused by mine mining will also lead to the influx of groundwater and the increase of osmotic pressure, thus forming high-pressure water hazards; through a comprehensive study of the hydrogeological conditions around the mine and inside the ore deposit, the distribution, flow direction and pressure of groundwater can be understood, and corresponding prevention and control measures can be formulated to reduce the occurrence of high-pressure water hazards.

[0003] At present, the exploration of groundwater level is mainly achieved through water level observation tools and samplers. When using the water level observation tools, the water level is measured by pulling and releasing a rope. Only one set of measurement data can be obtained at a time, which is not accurate enough. Multiple sets of data need to be collected multiple times, which wastes time. At the same time, when the sampler samples groundwater, it is inconvenient to achieve the technical effects of sampling at different depths, multiple sets of sampling at the same depth, and multiple sets of sampling at the same depth in another area of ​​groundwater, which reduces the accuracy of exploration. Summary of the invention

[0004] In view of the above situation, in order to overcome the defects of the prior art, the present invention provides a hydrogeological exploration device for high-pressure water hazard prevention and control, which can perform multiple groups of explorations on the groundwater level at the same time, increase the accuracy of the exploration, and at the same time achieve the technical effects of sampling at different depths, multiple groups of sampling at the same depth, and multiple groups of sampling at the same depth in another area of ​​groundwater.

[0005] The technical solution adopted by the present invention is as follows: a hydrogeological exploration device for high-pressure water hazard prevention and control, comprising a support seat, a connecting piece connected to the support seat, a driving assembly installed on the upper wall of the connecting piece, a wire harness receiving assembly connected to the bottom wall of the connecting piece, the driving assembly is connected to the wire harness receiving assembly, the driving assembly provides a predetermined driving force for the wire harness receiving assembly, and a pulley limiting assembly is installed at the lower end of the support seat;

[0006] The wire harness receiving assembly includes a driving rod, the upper end of the driving rod is movably connected to the bottom wall of the connecting piece, a wire harness disc is fixedly installed on the driving rod, and the wire harness disc is provided with a plurality of groups, which are wire harness disc one, wire harness disc two, wire harness disc three, wire harness disc four and wire harness disc five from bottom to top, and the wire harness disc one is provided with a plurality of groups, which are arranged on the driving rod in sequence from bottom to top;

[0007] The pulley limiting assembly includes a support connecting piece, which is installed at the lower end of the support seat, and the support connecting piece is arranged at the lower end of the wiring harness disk. The support connecting piece is movably connected to the lower end of the driving rod, and the driving rod will not drive the support connecting piece to rotate when it rotates. A support ring is provided on the support connecting piece, and the support rings are support ring one, support ring two, support ring three, support ring four and support ring five from the inside to the outside, and the support ring one, support ring two, support ring three, support ring four and support ring five are arranged in concentric circles, a pulley group one is installed on the support ring one, a pulley group two is installed on the support ring two, a pulley group three is installed on the support ring three, a pulley group four is installed on the support ring four, and a pulley group five is installed on the support ring five.

[0008] Further, the pulley block 1 includes pulley 1, and the pulley 1 is provided with multiple groups, and the multiple groups of pulley 1 are arranged in a ring shape on the support ring 1; the pulley block 2 includes pulley 2, and the pulley 2 is provided with multiple groups, and the multiple groups of pulley 2 are arranged in a ring shape on the support ring 2; the pulley block 3 includes pulley 3, and the pulley 3 is provided with multiple groups, and the multiple groups of pulley 3 are arranged in a ring shape on the support ring 3; the pulley block 4 includes pulley 4, and the pulley 4 is provided with multiple groups, and the multiple groups of pulley 4 are arranged in a ring shape on the support ring 4; the pulley block 5 includes pulley 5, and the pulley 5 is provided with multiple groups, and the multiple groups of pulley 5 are arranged in a ring shape on the support ring 5; the number of the wiring harness disc 1 is the same as the number of pulleys 1, and when the wiring harness on the wiring harness disc 1 is hung down, it is respectively arranged directly above different pulleys 1, and the height of the hanging end of the wiring harness on each group of wiring harness discs 1 is on the same horizontal plane.

[0009] As a preferred embodiment of the present invention, the wiring harness reel one, wiring harness reel two, wiring harness reel three, wiring harness reel four and wiring harness reel five are all wound with wiring harnesses, and the wiring harnesses on the wiring harness reels can pass through the pulley block on the support ring, and the pulley block plays a role of limiting and guiding the wiring harnesses.

[0010] Wherein, the driving assembly includes a support plate, which is arranged on the upper wall of the connecting piece, and a motor is installed between the support plate and the connecting piece, and the output shaft end of the motor passes through the upper wall of the connecting piece and is connected to the driving rod, and the motor is a forward and reverse motor, and the motor is set to provide a predetermined driving force for the rotation of the driving rod; the wiring harness disk 1, the wiring harness disk 2, the wiring harness disk 3, the wiring harness disk 4, the wiring harness disk 5 and the supporting connecting piece are all made of lightweight materials, and the motor can drive the driving rod to rotate when the motor works, and the rotation of the driving rod drives the wiring harness disk 1, the wiring harness disk 2, the wiring harness disk 3, the wiring harness disk 4, the wiring harness disk 5 and the supporting connecting piece thereon to rotate, and the wiring harnesses on the wiring harness disk 1, the wiring harness disk 2, the wiring harness disk 3, the wiring harness disk 4 and the wiring harness disk 5 are relaxed or wound, and the wiring harnesses on the wiring harness disk 1, the wiring harness disk 2, the wiring harness disk 3, the wiring harness disk 4 and the wiring harness disk 5 can be fixed, which can be achieved by tape, etc. When the wiring harness on the wiring harness disk that is not needed is fixed, the wiring harness on it is prevented from interfering with the measurement.

[0011] As a preferred embodiment of the present invention, a water level sensor is movably connected to the movable end of the wiring harness, and the water level sensor can observe the underground water level.

[0012] Furthermore, a sampler is movably connected to the movable end of the wiring harness, and the sampler can sample the groundwater level.

[0013] Preferably, a controller is provided in the support seat, and the controller is electrically connected to the motor, the sampler and the water level sensor.

[0014] After adopting the above structure, the beneficial effects of the present invention are as follows:

[0015] (1) The number of harness reels 1 is the same as the number of pulleys 1. When the harnesses on the harness reels 1 are hung down, they are respectively arranged directly above different pulleys 1, and the heights of the hanging ends of the harnesses on each set of harness reels 1 are on the same horizontal plane, which is convenient for conducting multiple sets of exploration of groundwater levels at the same time, increasing the accuracy of exploration, and providing conditions for multiple sets of sampling at the same depth.

[0016] (2) The arrangement of pulley one, pulley two, pulley three, pulley four and pulley five, in conjunction with the wire harness receiving assembly, can achieve the technical effects of sampling groundwater at different depths, sampling multiple groups at the same depth, and sampling multiple groups at the same depth in another area of ​​groundwater. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] The accompanying drawings are used to provide further understanding of the present invention and constitute a part of the specification. They are used to explain the present invention together with the embodiments of the present invention and do not constitute a limitation of the present invention.

[0018] Figure 1 A schematic diagram of the structure of a hydrogeological exploration device for high-pressure water disaster prevention and control proposed by the present invention;

[0019] Figure 2 An axonometric diagram of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0020] Figure 3 A bottom view of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0021] Figure 4 A schematic diagram of the structure of a harness receiving assembly and a pulley limiting assembly of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0022] Figure 5 A front view of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0023] Figure 6 A schematic diagram of the working of multiple groups of underground water level exploration of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0024] Figure 7 A schematic diagram of the working process of sampling groundwater at different depths using a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0025] Figure 8 A schematic diagram of the operation of taking multiple groups of groundwater samples at the same depth using a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0026] Fig. 9 A schematic diagram of the operation of taking multiple groups of samples at the same depth in another area of ​​groundwater using a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention;

[0027] Fig.10 This is a schematic diagram of a hydrogeological exploration device for high-pressure water hazard prevention and control proposed by the present invention for simultaneously realizing multiple groups of exploration and sampling of groundwater at different depths.

[0028] In the accompanying drawings: 1. support seat, 2. connecting piece, 3. drive assembly, 4. wire harness receiving assembly, 5. pulley limiting assembly, 6. driving rod, 7. wire harness disc one, 8. wire harness disc two, 9. wire harness disc three, 10. wire harness disc four, 11. wire harness disc five, 12. supporting connecting piece, 13. support ring one, 14. support ring two, 15. support ring three, 16. support ring four, 17. support ring five, 18. pulley block one, 19. pulley block two, 20. pulley block three, 21. pulley block four, 22. pulley block five, 23. pulley one, 24. pulley two, 25. pulley three, 26. pulley four, 27. pulley five, 28. wire harness, 29. support plate, 30. motor, 31. water level sensor, 32. sampler. DETAILED DESCRIPTION

[0029] The technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments; based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0030] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0031] like Figure 1-Figure 10 As shown, a hydrogeological exploration device for high-pressure water hazard prevention and control includes a support seat 1, a connecting member 2 is connected to the support seat 1, a driving assembly 3 is installed on the upper wall of the connecting member 2, a wiring harness receiving assembly 4 is connected to the bottom wall of the connecting member 2, the driving assembly 3 is connected to the wiring harness receiving assembly 4, the driving assembly 3 provides a predetermined driving force for the wiring harness receiving assembly 4, and a pulley limiting assembly 5 is installed at the lower end of the support seat 1; the wiring harness receiving assembly 4 includes a driving rod 6, the upper end of the driving rod 6 is movably connected to the bottom wall of the connecting member 2, and a wiring harness disk is fixedly installed on the driving rod 6, and the wiring harness disk is provided with a plurality of groups, which are, from bottom to top, wiring harness disk one 7, wiring harness disk two 8, wiring harness disk three 9, wiring harness disk four 10 and wiring harness disk five 11, and wiring harness disk one 7 is provided with a plurality of groups, which are arranged on the driving rod 6 from bottom to top; the pulley limiting assembly 5 The utility model comprises a supporting connecting member 12, wherein the supporting connecting member 12 is installed at the lower end of the supporting seat 1, the supporting connecting member 12 is arranged at the lower end of the wiring harness disk, the supporting connecting member 12 is movably connected with the lower end of the driving rod 6, and the driving rod 6 will not drive the supporting connecting member 12 to rotate when it rotates, and a supporting ring is provided on the supporting connecting member 12, and the supporting rings are respectively a supporting ring 13, a supporting ring 2 14, a supporting ring 3 15, a supporting ring 4 16 and a supporting ring 5 17 from the inside to the outside, and the supporting ring 13, the supporting ring 2 14, the supporting ring 3 15, the supporting ring 4 16 and the supporting ring 5 17 are arranged in concentric circles, a pulley group 18 is installed on the supporting ring 13, a pulley group 2 19 is installed on the supporting ring 2 14, a pulley group 3 20 is installed on the supporting ring 3 15, a pulley group 4 21 is installed on the supporting ring 4 16, and a pulley group 5 22 is installed on the supporting ring 5 17.

[0032] The pulley block 18 includes a pulley 1 23, and the pulley 1 23 has multiple groups, and the pulley 1 23 of multiple groups is arranged in an annular shape on the support ring 13. The pulley block 2 19 includes a pulley 2 24, and the pulley 2 24 has multiple groups, and the pulley 2 24 of multiple groups is arranged in an annular shape on the support ring 2 14. The pulley block 3 20 includes a pulley 3 25, and the pulley 3 25 has multiple groups, and the pulley 3 25 of multiple groups is arranged in an annular shape on the support ring 3 15. The pulley block 4 21 includes a pulley 4 26, and the pulley 4 26 has multiple groups, and the pulley 4 26 of multiple groups is arranged in an annular shape on the support ring 4 16. The pulley block 5 22 includes a pulley 5 27 There are multiple groups of pulleys 5 27, and the multiple groups of pulleys 5 27 are arranged in a ring shape on the support ring 5 17; the wire harness 28 is wound around the wire harness reel 1 7, the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11, and the number of the wire harness reels 1 7 is the same as the number of the pulleys 23. When the wire harness 28 on the wire harness reel 1 7 is hung down, they are respectively arranged directly above different pulleys 23, and the hanging end heights of the wire harness 28 on each group of wire harness reels 7 are on the same horizontal plane; the wire harness 28 on the wire harness reel can pass through the pulley group on the support ring, and the pulley group plays a role of limiting and guiding the wire harness 28.

[0033] The driving assembly 3 includes a support plate 29, which is arranged on the upper wall of the connecting member 2. A motor 30 is installed between the support plate 29 and the connecting member 2. The output shaft end of the motor 30 passes through the upper wall of the connecting member 2 and is connected to the driving rod 6. The motor 30 is a forward and reverse motor 30. The setting of the motor 30 provides a predetermined driving force for the rotation of the driving rod 6; the wiring harness disk 1 7, the wiring harness disk 2 8, the wiring harness disk 3 9, the wiring harness disk 4 10, the wiring harness disk 5 11 and the supporting connecting member 12 are all made of lightweight materials. The motor 30 can drive the driving rod 6 to rotate when it works, and the driving rod 6 The rotation drives the wiring harness reel 1 7, wiring harness reel 2 8, wiring harness reel 3 9, wiring harness reel 4 10, wiring harness reel 5 11 and supporting connector 12 thereon to rotate, and the wiring harness 28 on wiring harness reel 1 7, wiring harness reel 2 8, wiring harness reel 3 9, wiring harness reel 4 10 and wiring harness reel 5 11 are loosened or wound, and the wiring harness 28 on wiring harness reel 1 7, wiring harness reel 2 8, wiring harness reel 3 9, wiring harness reel 4 10 and wiring harness reel 5 11 can be fixed, which can be achieved by means of tape or the like. When the wiring harness 28 on the wiring harness reel is not needed, it can be fixed to prevent the wiring harness 28 thereon from interfering with the measurement.

[0034] A water level sensor 31 is movably connected to the movable end of the wiring harness 28, and the water level sensor 31 can observe the groundwater level; a sampler 32 is movably connected to the movable end of the wiring harness 28, and the sampler 32 can sample the groundwater level; a controller is provided in the support seat 1, and the controller is electrically connected to the motor 30, the sampler 32 and the water level sensor 31.

[0035] The specific usage is as follows:

[0036] like Figure 6 Embodiment 1

[0037] When it is necessary to measure the groundwater level, after fixing the wire harness 28 on the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11, use the wire harnesses on the multiple wire harness reels 7, and then put down the wire harnesses 28 on each wire harness reel 7. When the wire harnesses 28 on the wire harness reel 7 are hung down, they are respectively arranged directly above different pulleys 23. The wire harnesses 28 pass through the pulley 23 and are arranged at the lower end of the supporting connector 12. The heights of the hanging ends of the wire harnesses 28 on each wire harness reel 7 are all on the same horizontal plane. Multiple groups of water level sensors 31 are respectively arranged on different wire harnesses 28. The heights of the multiple groups of water level sensors 31 are consistent. Then the motor 30 works to drive the drive rod 6 to rotate, and the drive rod 6 drives the wire harness reels 7, The harness disk 2 8, the harness disk 3 9, the harness disk 4 10 and the harness disk 5 11 rotate. Since the harness 28 on the harness disk 2 8, the harness disk 3 9, the harness disk 4 10 and the harness disk 5 11 is fixed on the harness disk 2 8, the harness disk 3 9, the harness disk 4 10 and the harness disk 5 11, the harness 28 on the harness disk 1 7 is loosened as the harness disk 1 7 rotates, and slides down along the pulley 1 23 under the pull of the water level sensor 31. After the water level sensor 31 contacts the groundwater, the motor 30 stops working, and the depth of the groundwater is recorded for the length of the inserted harness 28. The controller collects multiple sets of data, which can improve the accuracy of the data. The groundwater level achieves the technical effect of multiple sets of exploration at the same time, preventing only one set of data, which is easy to cause data errors;

[0038] like Figure 7 Embodiment 2 shown

[0039] When sampling and exploration of groundwater at different depths is required, the wire harness 28 on the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11 are lowered, and the wire harness 28 on one group of wire harness reel 1 7 is lowered, and the wire harness 28 on the other multiple groups of wire harness reel 1 7 are fixed. When the wire harness 28 on the wire harness reel 1 7, the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11 are hung down, the wire harness 28 on the wire harness reel 1 7 passes through the pulley 1 23 at its lower end and is then arranged at the lower end of the supporting connecting member 12, and the wire harness 28 on the wire harness reel 2 8 passes through the pulley 1 23 at its lower end and is then arranged at the lower end of the supporting connecting member 12, and the wire harness 28 on the wire harness reel 2 8 passes through the pulley 1 23 at its lower end and is closest to the pulley 1 23 at its lower end. The pulley 24 of the wire harness disk 3 9 is then arranged at the lower end of the support connecting member 12, the wire harness 28 on the wire harness disk 3 9 passes through the pulley 3 25 closest to its lower end and is then arranged at the lower end of the support connecting member 12, the wire harness 28 on the wire harness disk 4 10 passes through the pulley 4 26 closest to its lower end and is then arranged at the lower end of the support connecting member 12, the wire harness 28 on the wire harness disk 5 11 passes through the pulley 5 27 closest to its lower end and is then arranged at the lower end of the support connecting member 12, and then the sampler 32 is respectively arranged on the drooping wire harness 28, and then the motor 30 works to drive the drive rod 6 to rotate, and the drive rod 6 drives the wire harness disk As the drive rod 6 rotates, the wire harness 28 on the wire harness reel 17, the wire harness reel 28, the wire harness reel 39, the wire harness reel 410 and the wire harness reel 511 are loosened and respectively slide down along the pulley 1 23, the pulley 24, the pulley 3 25, the pulley 4 26 and the pulley 5 27 under the pull of the sampler 32. As the diameters of the wire harness reel 511, the wire harness reel 410, the wire harness reel 39, the wire harness reel 28 and the wire harness reel 17 are reduced in sequence, after rotating at the same angle, the wire harness 28 on the wire harness reel 17, the wire harness reel 28, the wire harness reel 39, the wire harness reel 410 and the wire harness reel 511 are loosened as the drive rod 6 rotates, and respectively slide down along the pulley 1 23, the pulley 24, the pulley 3 25, the pulley 4 26 and the pulley 5 27 under the pull of the sampler 32. The length of the wire harness 28 on the fifth disk 11 falling is greater than the length of the wire harness 28 on the fourth disk 10 falling, the length of the wire harness 28 on the fourth disk 10 falling is greater than the length of the wire harness 28 on the third disk 9 falling, the length of the wire harness 28 on the third disk 9 falling is greater than the length of the wire harness 28 on the second disk 8 falling, the length of the wire harness 28 on the second disk 8 falling is greater than the length of the wire harness 28 on the first disk 7 falling, so the sampler 32 falls to different depths in the groundwater, achieving the technical effect of sampling and exploring groundwater at different depths;

[0040] like Figure 8 and Fig. 9 Embodiment 3 shown

[0041] When multiple groups of samples are required at the same depth of groundwater, after fixing the wire harness 28 on the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11, use the wire harness 28 on the multiple groups of wire harness reel 1 7, and then put down the wire harness 28 on each group of wire harness reel 1 7. When the wire harness 28 on the wire harness reel 1 7 is hung down, they are respectively arranged above different pulleys (which can be any group of pulley 1 23, pulley 24, pulley 3 25, pulley 4 26, pulley 5 27), and the height of the hanging end of the wire harness 28 on each group of wire harness reel 1 7 is basically on the same horizontal plane. The wire harness 28 passes through the pulley (which can be any group of pulley 1 23, pulley 24, pulley 3 25, pulley 4 26, pulley 5 27) and is then arranged at the lower end of the supporting connector 12. Multiple groups of samplers 32 are respectively arranged on different wire harnesses 28. The heights of the multiple groups of samplers 32 are basically the same, and then the motor 30 works to drive the drive rod 6 to rotate, and the drive rod 6 drives the harness disk 1 7, harness disk 2 8, harness disk 3 9, harness disk 4 10 and harness disk 5 11 to rotate. Since the harness 28 on the harness disk 2 8, harness disk 3 9, harness disk 4 10 and harness disk 5 11 is fixed on the harness disk 2 8, harness disk 3 9, harness disk 4 10 and harness disk 5 11, the harness 28 on the harness disk 1 7 is loosened as the harness disk 1 7 rotates, and slides down along the pulley under the pulley of the sampler 32. The sampler 32 falls to the same depth of the groundwater, and the motor 30 stops working. The multiple groups of samplers 32 sample the groundwater at the same depth. Different pulleys correspond to different areas of groundwater, thereby achieving the technical effect of multiple groups of sampling and exploration at the same depth in different areas of groundwater.

[0042] like Fig.10 Embodiment 4 shown

[0043] It is necessary to simultaneously realize multiple groups of exploration and sampling of groundwater at different depths, lower the wire harness 28 on the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 11, lower the wire harness 28 on multiple groups of wire harness reel 1 7, and when the wire harness 28 on the wire harness reel 1 7 is hung down, they are respectively arranged directly above different pulleys 23, and the wire harness 28 passes through the pulley 1 23 and is arranged at the lower end of the supporting connector 12, and the height of the hanging end of the wire harness 28 on each group of wire harness reel 1 7 is on the same horizontal plane, and multiple groups of water level sensors 31 are respectively arranged on different wire harnesses 28, and the heights of multiple groups of water level sensors 31 are consistent, and the wire harness reel 2 8, the wire harness reel 3 9, the wire harness reel 4 10 and the wire harness reel 5 When the harness 28 on the harness disc 5 11 hangs down, the harness 28 on the harness disc 2 8 passes through the pulley 2 24 closest to its lower end and is then arranged at the lower end of the support connecting member 12, the harness 28 on the harness disc 3 9 passes through the pulley 3 25 closest to its lower end and is then arranged at the lower end of the support connecting member 12, the harness 28 on the harness disc 4 10 passes through the pulley 4 26 closest to its lower end and is then arranged at the lower end of the support connecting member 12, the harness 28 on the harness disc 5 11 passes through the pulley 5 27 closest to its lower end and is then arranged at the lower end of the support connecting member 12, and then the sampler 32 is respectively arranged on the harness disc 2 8, the harness disc 3 9, the harness disc 4 10 and the harness disc 5 11 The hanging harness 28, and then the motor 30 The work drives the driving rod 6 to rotate, and the driving rod 6 drives the wiring harness disk 1 7, wiring harness disk 2 8, wiring harness disk 3 9, wiring harness disk 4 10 and wiring harness disk 5 11 to rotate. The wiring harness 28 on the wiring harness disk 1 7, wiring harness disk 2 8, wiring harness disk 3 9, wiring harness disk 4 10 and wiring harness disk 5 11 is loosened as the driving rod 6 rotates, and slides down along the pulley 1 23, pulley 24, pulley 3 25, pulley 4 26 and pulley 5 27 respectively under the pull of the sampler 32 and the water level sensor 31. After the water level sensor 31 connected to the wiring harness disk 1 contacts the groundwater, the motor 30 stops working, and the depth of the groundwater is recorded for the length of the inserted wiring harness 28. The controller collects multiple sets of data, which can provide The data is highly accurate and the technical effect of simultaneous multiple explorations of the groundwater level is achieved; at the same time, since the diameters of harness disk five 11, harness disk four 10, harness disk three 9, and harness disk two 8 decrease successively, after rotating at the same angle, the falling length of the harness 28 on harness disk five 11 is greater than the falling length of the harness 28 on harness disk four 10, the falling length of the harness 28 on harness disk four 10 is greater than the falling length of the harness 28 on harness disk three 9, and the falling length of the harness 28 on harness disk three 9 is greater than the falling length of the harness 28 on harness disk two 8. Therefore, the sampler 32 falls to different depths in the groundwater, thereby achieving the technical effect of sampling and exploring groundwater at different depths.

[0044] Although the embodiments of the present invention have been shown and described, it is understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to these embodiments without departing from the principles and spirit of the present invention, and the scope of the present invention is defined by the appended claims and their equivalents. In short, if those skilled in the art are inspired by them and design structural modes and embodiments similar to the technical solution without creativity without departing from the purpose of the present invention, they shall all fall within the scope of protection of the present invention.

Claims

1. A hydrogeological exploration device for high-pressure water hazard prevention and control, comprising a support seat, a connecting piece connected to the support seat, a driving assembly installed on the upper wall of the connecting piece, characterized in that: A wire harness receiving assembly is connected to the bottom wall of the connector, the driving assembly is connected to the wire harness receiving assembly, and a pulley limiting assembly is installed at the lower end of the support seat; The wire harness receiving assembly includes a driving rod, the upper end of the driving rod is movably connected to the bottom wall of the connecting piece, a wire harness disc is fixedly installed on the driving rod, and the wire harness disc is provided with a plurality of groups, which are wire harness disc one, wire harness disc two, wire harness disc three, wire harness disc four and wire harness disc five from bottom to top, and the wire harness disc one is provided with a plurality of groups, which are arranged on the driving rod in sequence from bottom to top; The pulley limiting assembly includes a support connecting piece, which is installed at the lower end of the support seat, and the support connecting piece is arranged at the lower end of the wiring harness disk. The support connecting piece is movably connected to the lower end of the driving rod, and a support ring is provided on the support connecting piece. The support rings are support ring one, support ring two, support ring three, support ring four and support ring five from the inside to the outside, and the support ring one, support ring two, support ring three, support ring four and support ring five are arranged in concentric circles, pulley group one is installed on the support ring one, pulley group two is installed on the support ring two, pulley group three is installed on the support ring three, pulley group four is installed on the support ring four, and pulley group five is installed on the support ring five.

2. A hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 1, characterized in that: The pulley group 1 includes pulley 1, and the pulley 1 is provided with multiple groups, and the multiple groups of pulley 1 are arranged in a ring shape on the support ring 1. The pulley group 2 includes pulley 2, and the pulley 2 is provided with multiple groups, and the multiple groups of pulley 2 are arranged in a ring shape on the support ring 2. The pulley group 3 includes pulley 3, and the pulley 3 is provided with multiple groups, and the multiple groups of pulley 3 are arranged in a ring shape on the support ring 3. The pulley group 4 includes pulley 4, and the pulley 4 is provided with multiple groups, and the multiple groups of pulley 4 are arranged in a ring shape on the support ring 4. The pulley group 5 includes pulley 5, and the pulley 5 is provided with multiple groups, and the multiple groups of pulley 5 are arranged in a ring shape on the support ring 5.

3. A hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 2, characterized in that: The first harness reel, the second harness reel, the third harness reel, the fourth harness reel and the fifth harness reel are all wound with harnesses, and the number of the first harness reels is the same as the number of the first pulley.

4. The hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 3 is characterized in that: The driving assembly includes a support plate, which is arranged on the upper wall of the connecting piece. A motor is installed between the support plate and the connecting piece. The output shaft end of the motor passes through the upper wall of the connecting piece and is connected to the driving rod. The motor is a forward and reverse motor. The motor is set to provide a predetermined driving force for the rotation of the driving rod; wiring harness reel one, wiring harness reel two, wiring harness reel three, wiring harness reel four, wiring harness reel five and the supporting connecting piece are all made of lightweight materials.

5. The hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 4 is characterized in that: A water level sensor is movably connected to the movable end of the wiring harness, and the water level sensor can observe the underground water level.

6. The hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 5 is characterized in that: The movable end of the wire harness is movably connected with a sampler, and the sampler can sample the groundwater level.

7. The hydrogeological exploration device for high-pressure water hazard prevention and control according to claim 6 is characterized in that: A controller is arranged in the support seat, and the controller is electrically connected with the motor, the sampler and the water level sensor.

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