Positioning measurement device for resource exploration

Abstract

The utility model discloses a positioning and measuring device for resource exploration, which comprises a concentric-square-shaped supporting block, a concentric-square-shaped limiting support, a lifting exploration device, a balance structure and an auxiliary fixing structure, and relates to the technical field of resource exploration. According to the design, the position of the excavation positioning sleeve can be accurately adjusted so as to meet the requirements of different road surfaces and inclination angles; a balance structure on the concentric-square-shaped supporting block can be extruded, adsorbed and fixed according to the road surface condition, so that the stability and adaptability of the equipment on different grounds are enhanced; due to the design of an I-shaped horizontal telescopic block and an excavation positioning sleeve, the stability during horizontal and vertical movement is ensured, and vibration and deviation are reduced; due to the balance design of the telescopic sliding way and the telescopic sliding block and the locking function of the electromagnetic telescopic lock, the stability and reliability of the whole structure are further improved.

Description

Technical Field

[0001] The utility model relates to the technical field of resource exploration, in particular to a positioning and measuring device for resource exploration. Background Art

[0002] Geological exploration is a comprehensive research activity that employs a variety of methods and approaches to conduct detailed geological surveys and explorations. The goal is to accurately identify suitable bearing strata, determine foundation types based on the bearing capacity of these strata, and precisely calculate relevant foundation parameters. This process begins with the discovery of industrially valuable mineral deposits during mineral surveys and aims to thoroughly determine the quality and quantity of the minerals, as well as the technical requirements for their extraction and utilization. This provides the necessary mineral reserves and detailed geological data for mine design. This includes comprehensive and in-depth investigations of a specific area's rocks, strata, geological structures, mineral resources, hydrological characteristics, and landforms.

[0003] To address the practical challenges faced in geological exploration, we have innovatively designed a rock formation drilling positioning device. In traditional geological exploration, drilling and sampling are typically performed by workers using handheld drilling devices. However, this method is susceptible to operator error, resulting in offset and tilted holes, which in turn reduces construction efficiency. Furthermore, measuring the spacing between multiple holes is cumbersome, making operations inconvenient. Therefore, our new device aims to address these issues and improve the accuracy and efficiency of geological exploration. Consequently, we conducted in-depth research on these issues, leading to this case. Utility Model Content

[0004] In view of the deficiencies of the existing technology, the present invention provides a positioning and measuring device for resource exploration, which solves some of the existing background technology problems.

[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: A positioning and measuring device for resource exploration, comprising: a circular support block, a circular limit bracket, a lifting probe, a balancing structure, and an auxiliary fixing structure, wherein the circular limit bracket is mounted on the circular support block, the lifting probe is mounted on the inner side of the circular limit bracket, the balancing structure is mounted on the circular support block, and the auxiliary fixing structure is mounted on the circular limit bracket;

[0006] The auxiliary fixing structure includes: two pairs of excavation positioning sleeves, two pairs of lifting sleeves, two pairs of horizontal telescopic blocks, two pairs of horizontal sets of blocks, two pairs of horizontal driving machines, two pairs of horizontal driving gears, two pairs of vertical driving machines, two pairs of vertical driving gears, a plurality of telescopic slides, a plurality of telescopic sliders, two pairs of drilling locators and a plurality of electromagnetic telescopic locks;

[0007] The two pairs of the work-type set blocks are installed in a cross shape on the circular limit bracket, and the two pairs of the work-type set blocks are respectively provided with work-type expansion slots and horizontal drive slots. The two pairs of the work-type set blocks are movably inserted in the inner side of the work-type expansion slots, and the two pairs of the horizontal driving machines are respectively installed on the two pairs of the work-type set blocks. The two pairs of the work-type horizontal expansion blocks are respectively provided with horizontal gear slot groups. The two pairs of the horizontal drive gears are respectively installed on the driving ends of the two pairs of the horizontal driving machines, and the two pairs of the horizontal drive gears are respectively engaged with the gears between the two pairs of the horizontal gear slot groups. The two pairs of the lifting set sleeves are respectively installed on the two pairs of the work-type set blocks, and the two pairs of the excavation positioning sleeves are respectively movably inserted in the two pairs of the lifting set sleeves. On the inner side of the cylinder, two pairs of the lifting sleeves are respectively provided with a vertical gear groove group, and two pairs of the excavation positioning sleeves are respectively provided with a vertical gear groove group. The two pairs of vertical drive machines are respectively installed on the outside of the two pairs of lifting sleeves, and the two pairs of vertical drive gears are respectively installed on the driving ends of the two pairs of vertical drive machines, and the two pairs of vertical drive gears are respectively on the inner sides of the two pairs of vertical gear groove groups. The two pairs of drilling locators are respectively installed on the inner sides of the two pairs of excavation positioning sleeves, and several telescopic slides are respectively installed on the two pairs of lifting sleeves and the inner sides of the two pairs of I-type telescopic grooves, and several telescopic sliders are respectively installed on the two pairs of excavation positioning sleeves and the two pairs of I-type set blocks.

[0008] Preferably, the balancing structure comprises: two pairs of negative pressure T-tubes, two pairs of negative pressure threaded rods, two pairs of negative pressure threaded tubes, two pairs of negative pressure brackets, two pairs of negative pressure driving machines, two pairs of negative pressure extrusion plates, two pairs of negative pressure set rubber rings, two pairs of negative pressure bevel gear sets, two pairs of circular transfer blocks, four pairs of longitudinal shafts, four pairs of longitudinal lifting bearing blocks, a plurality of longitudinal lifting spring columns and four pairs of transverse shafts;

[0009] Two pairs of angle grooves are provided on the circular support block, and the two pairs of circular transfer blocks are respectively inserted into the inner sides of the two pairs of angle grooves through four pairs of transverse shafts. A pair of lifting bearing grooves are respectively provided on the two pairs of circular transfer blocks, and four pairs of longitudinal lifting bearing blocks are respectively movably inserted into the inner sides of the four pairs of lifting bearing grooves. Several longitudinal lifting spring columns are respectively installed on the inner sides of the four pairs of lifting bearing blocks, and several longitudinal lifting spring columns are respectively connected to the inner sides of the four pairs of lifting bearing grooves. Four pairs of longitudinal shafts are respectively inserted into the two pairs of longitudinal lifting bearing blocks, and two pairs of negative pressure T-tubes are inserted into the four On the longitudinal axis, the two pairs of negative pressure brackets are respectively installed on the inner sides of the two pairs of negative pressure T-tubes, the two pairs of negative pressure threaded tubes are respectively inserted on the two pairs of negative pressure brackets through bearings, the two pairs of negative pressure threaded rods are respectively movably inserted on the inner sides of the two pairs of negative pressure threaded tubes, the two pairs of negative pressure driving machines are respectively installed on the inner sides of the two pairs of negative pressure T-tubes, the two pairs of negative pressure bevel gear sets are respectively installed on the two pairs of negative pressure driving machines and the two pairs of negative pressure threaded tubes, the two pairs of negative pressure extrusion plates are respectively installed on the two pairs of negative pressure threaded rods, and the two pairs of negative pressure set rubber rings are respectively installed on the two pairs of negative pressure extrusion plates.

[0010] Preferably, a level is provided on the circular support block.

[0011] Preferably, a plurality of concave fitting blocks are provided on the circular support block, and a convex insertion block is respectively provided on the inner side of the plurality of concave fitting blocks.

[0012] Preferably, a plurality of the convex plug-in blocks are respectively provided with supporting balls.

[0013] Preferably, support spring columns are provided between the plurality of convex insertion blocks and the plurality of concave set blocks.

[0014] The utility model provides a positioning and measuring device for resource exploration. It has the following beneficial effects: the positioning and measuring device for resource exploration, through the cooperation of the horizontal drive motor and the vertical drive motor, can realize the precise adjustment of the position of the excavation positioning sleeve to meet the requirements of different road surfaces and inclination angles; the balance structure on the circular support block can be squeezed, adsorbed and fixed according to the road surface conditions, thereby enhancing the stability and adaptability of the equipment on different ground surfaces; the design of the horizontal telescopic block and the excavation positioning sleeve ensures stability during horizontal and vertical movement, and reduces vibration and offset; the balanced design of the telescopic slide and the telescopic slider, as well as the locking function of the electromagnetic telescopic lock, further improve the stability and reliability of the overall structure; the design of the negative pressure T-tube enables the equipment to be in close contact with the road surface. The negative pressure driving machine and the negative pressure threaded tube cooperate to realize negative pressure adsorption and fixation of the road surface, thereby enhancing the stability and safety of the equipment during operation; the design of the longitudinal axis and the transverse axis enables the negative pressure T-tube to perform longitudinal and transverse rotation buffering in the vertical direction, thereby improving the adaptability and flexibility of the equipment under complex road conditions; the design integrates multiple functions in one, including horizontal extension and contraction, vertical lifting and lowering, negative pressure adsorption and fixation, multi-angle rotation buffering, etc., thereby realizing comprehensive adjustment and control of the position of the excavation positioning sleeve; the design embodies a high level of technological innovation, and realizes precise control and stable support of the road drilling equipment through ingenious mechanical structure design, and has strong practicality and application value. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 This is a schematic front view and cross-sectional view of a positioning and measuring device for resource exploration described in the utility model.

[0016] Figure 2 for Figure 1 A partial enlarged view of "A".

[0017] Figure 3 This is a three-dimensional schematic diagram of a positioning and measuring device for resource exploration described in the utility model.

[0018] In the figure: 1. Ring-shaped support block; 2. Ring-shaped limit bracket; 3. Lifting probe; 4. Excavation positioning sleeve; 5. Lifting sleeve; 6. Type horizontal telescopic block; 7. Type suit block; 8. Horizontal drive motor; 9. Horizontal drive gear; 10. Vertical drive motor; 11. Vertical drive gear; 12. Telescopic slide; 13. Telescopic slider; 14. Drilling locator; 15. Electromagnetic telescopic lock; 16. Negative pressure T-tube; 17. Negative pressure threaded rod; 18. Negative pressure threaded tube; 19. Negative pressure bracket; 20. Negative pressure drive motor; 21. Negative pressure extrusion plate; 22. Negative pressure suit rubber ring; 23. Negative pressure bevel gear set; 24. Ring-shaped transfer block; 25. Longitudinal shaft; 26. Longitudinal lifting bearing block; 27. Longitudinal lifting spring column; 28. Transverse shaft. DETAILED DESCRIPTION

[0019] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0020] Through the use of wires by those skilled in the art, all electrical components in this case are connected to their corresponding power supplies, and appropriate controllers and encoders should be selected according to actual conditions to meet control requirements. The specific connection and control sequence should refer to the following working principle, in which the electrical components are electrically connected in sequence. The detailed connection means are well-known technologies in this field. The following mainly introduces the working principle and process, and no longer explains the electrical control.

[0021] Example

[0022] like Figure 1-3 As shown, the circular limit bracket 2 is installed on the circular support block 1, the lifting probe 3 is installed on the inner side of the circular limit bracket 2, the balancing structure is installed on the circular support block 1, and the auxiliary fixing structure is installed on the circular limit bracket 2;

[0023] Specifically, the auxiliary fixing structure includes: two pairs of excavation positioning sleeves 4, two pairs of lifting sleeves 5, two pairs of horizontal telescopic blocks 6, two pairs of horizontal telescopic blocks 7, two pairs of horizontal drive machines 8, two pairs of horizontal drive gears 9, two pairs of vertical drive machines 10, two pairs of vertical drive gears 11, a plurality of telescopic slides 12, a plurality of telescopic sliders 13, two pairs of drilling locators 14 and a plurality of electromagnetic telescopic locks 15;

[0024] Specifically, the two pairs of the work-type set blocks 7 are installed in a cross shape on the circular limit bracket 2, and the two pairs of the work-type set blocks 7 are respectively provided with work-type expansion slots and horizontal drive slots. The two pairs of the work-type set blocks 7 are movably inserted into the inner side of the work-type expansion slots, and the two pairs of the horizontal drive machines 8 are respectively installed on the two pairs of the work-type set blocks 7. The two pairs of the work-type horizontal expansion blocks 6 are respectively provided with horizontal gear groove groups. The two pairs of the horizontal drive gears 9 are respectively installed on the driving ends of the two pairs of the horizontal drive machines 8, and the two pairs of the horizontal drive gears 9 are respectively engaged with the gears between the two pairs of the horizontal gear groove groups. The two pairs of the lifting sleeves 5 are respectively installed on the two pairs of the work-type set blocks 7, and the two pairs of the excavation positioning sleeves 4 are respectively movably inserted into the two pairs of the lifting sleeves 5 On the inner side, two pairs of the lifting sleeves 5 are respectively provided with a vertical gear groove group, and two pairs of the excavation positioning sleeves 4 are respectively provided with a vertical gear groove group. Two pairs of the vertical drive machines 10 are respectively installed on the outer sides of the two pairs of lifting sleeves 5, and two pairs of the vertical drive gears 11 are respectively installed on the driving ends of the two pairs of vertical drive machines 10, and the two pairs of the vertical drive gears 11 are respectively on the inner sides of the two pairs of the vertical gear groove groups. Two pairs of the drilling locators 14 are respectively installed on the inner sides of the two pairs of the excavation positioning sleeves 4, and several telescopic slides 12 are respectively installed on the inner sides of the two pairs of lifting sleeves 5 and the two pairs of the I-type telescopic grooves. Several telescopic sliders 13 are respectively installed on the two pairs of the excavation positioning sleeves 4 and the two pairs of the I-type set blocks 7;

[0025] It should be noted that, in the above, the circular support block 1 on the circular limit bracket 2 is in contact with the ground, and the balancing structure on the circular support block 1 squeezes, adsorbs and fixes the circular support block 1 according to different road surfaces, and the auxiliary fixing structure supports the circular limit bracket 2, and the horizontal driving machine 8 on the work-type set block 7 is operated to drive the horizontal driving gear 9 on the driving end of the horizontal driving machine 8 to rotate, and the horizontal gear groove group on the work-type horizontal telescopic block 6 is driven by the horizontal driving gear 9, so that the work-type horizontal telescopic block 6 is stably extended and retracted along the inner side of the work-type set block 7, thereby changing the distance between the lifting sleeves 5 on the two pairs of work-type set blocks 7 and the circular limit bracket 2 for adjustment, and the lifting sleeves 5 on the two pairs of work-type set blocks 7 are adjusted by the two pairs of lifting sleeves. The vertical driving machine 10 on the cylinder 5 runs, and drives the vertical driving gear 11 on the driving end of the vertical driving machine 10 to rotate, and drives the vertical gear groove group on the excavation positioning sleeve 4 to be stably lifted and lowered through the vertical driving gear 11, so that the excavation positioning sleeve 4 is stably lifted and lowered on the inner side of the lifting sleeve 5, and the drilling locator 14 on the inner side of the excavation positioning sleeve 4 runs, so that the position of the excavation positioning sleeve 4 is adjusted according to the different inclination angles of the road surface, and the road surface is drilled by the drilling locator 14. The lifting and horizontal movement are stably supported by the balance of several telescopic slides 12 and several telescopic sliders 13, and the telescopic slider 13 and the telescopic slide 12 are telescopically locked and fixed by the electromagnetic telescopic lock 15.

[0026] like Figure 1-3 As shown, the balancing structure includes: two pairs of negative pressure T-tubes 16, two pairs of negative pressure threaded rods 17, two pairs of negative pressure threaded tubes 18, two pairs of negative pressure brackets 19, two pairs of negative pressure driving machines 20, two pairs of negative pressure extrusion plates 21, two pairs of negative pressure set rubber rings 22, two pairs of negative pressure bevel gear sets 23, two pairs of circular transfer blocks 24, four pairs of longitudinal shafts 25, four pairs of longitudinal lifting bearing blocks 26, a plurality of longitudinal lifting spring columns 27 and four pairs of transverse shafts 28;

[0027] Specifically, two pairs of angle grooves are provided on the circular support block 1, and the two pairs of the circular transfer blocks 24 are respectively inserted into the inner sides of the two pairs of angle grooves through four pairs of the transverse shafts 28. A pair of lifting bearing grooves are respectively provided on the two pairs of the circular transfer blocks 24, and four pairs of the longitudinal lifting bearing blocks 26 are respectively movably inserted into the inner sides of the four pairs of lifting bearing grooves. Several longitudinal lifting spring columns 27 are respectively installed on the inner sides of the four pairs of lifting bearing blocks, and several longitudinal lifting spring columns 27 are respectively connected to the inner sides of the four pairs of lifting bearing grooves. Four pairs of longitudinal shafts 25 are respectively inserted into the two pairs of longitudinal lifting bearing blocks 26, and two pairs of the negative pressure T-tubes 16 are inserted into the four pairs of longitudinal On the shaft 25, the two pairs of negative pressure brackets 19 are respectively installed on the inner sides of the two pairs of negative pressure T-tubes 16, the two pairs of negative pressure threaded tubes 18 are respectively inserted on the two pairs of negative pressure brackets 19 through bearings, the two pairs of negative pressure threaded rods 17 are respectively movably inserted on the inner sides of the two pairs of negative pressure threaded tubes 18, the two pairs of negative pressure driving machines 20 are respectively installed on the inner sides of the two pairs of negative pressure T-tubes 16, the two pairs of negative pressure bevel gear sets 23 are respectively installed on the two pairs of negative pressure driving machines 20 and the two pairs of negative pressure threaded tubes 18, the two pairs of negative pressure extrusion plates 21 are respectively installed on the two pairs of negative pressure threaded rods 17, and the two pairs of negative pressure sleeve rubber rings 22 are respectively installed on the two pairs of negative pressure extrusion plates 21;

[0028] It should be noted that, in the above, the negative pressure T-tube 16 is in contact with the road surface, and the angle of the road surface drives the negative pressure T-tube 16 thereon, so that the negative pressure T-tube 16 drives the longitudinal axis 25 thereon, and the longitudinal lifting bearing block 26 thereon is driven by the longitudinal axis 25 to perform stable lifting and buffering. At the same time, the longitudinal lifting bearing block 26 is used to buffer along the longitudinal lifting spring column 27. Similarly, the horizontal axis 28 is used to rotate the circular transfer block 24 in the vertical direction, thereby buffering the longitudinal and horizontal rotations in the vertical direction, thereby adjusting the angle of the negative pressure T-tube 16. The negative pressure driving machine 20 on the inner side of the negative pressure T-tube 16 is operated, which drives the negative pressure bevel gear set 23 on the driving end of the negative pressure driving machine 20 to operate, which drives the negative pressure bevel gear set 23 to drive the negative pressure threaded tube 18 thereon to operate, which drives the negative pressure threaded tube 18 to drive the negative pressure threaded rod 17 on its inner side, and the negative pressure extrusion plate 21 on it is driven by the negative pressure threaded rod 17 to be stably raised and lowered. The negative pressure extrusion plate 21 is used to stably raise and lower the inner side of the negative pressure T-tube 16, and the negative pressure on the inner side of the negative pressure T-tube 16 is adjusted by the negative pressure extrusion plate 21, so that the two pairs of negative pressure T-tubes 16 are negatively adsorbed and fixed.

[0029] As a preferred solution, further, a level is provided on the circular support block 1 .

[0030] As a preferred solution, further, a plurality of concave fitting blocks are provided on the circular support block 1, and convex insertion blocks are respectively provided on the inner sides of the plurality of concave fitting blocks.

[0031] As a preferred solution, further, several of the convex plug-in blocks are respectively provided with supporting balls.

[0032] As a preferred solution, further, support spring columns are provided between the plurality of convex insertion blocks and the plurality of concave set blocks.

[0033] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "include," "comprise," or any other variations thereof are intended to cover non-exclusive inclusion, so that a process, method, article, or device that includes a series of elements includes not only those elements, but also other elements not explicitly listed, or elements inherent to such process, method, article, or device. In the absence of further limitations. The phrase "includes an element defined by..." does not exclude the presence of other identical elements in the process, method, article, or device that includes the element.

[0034] Although the embodiments of the present invention have been shown and described, it will be 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.

Claims

1. A positioning and measuring device for resource exploration, comprising: A circular support block, a circular limit bracket, a lifting probe, a balancing structure, and an auxiliary fixing structure, characterized in that the circular limit bracket is mounted on the circular support block, the lifting probe is mounted on the inner side of the circular limit bracket, the balancing structure is mounted on the circular support block, and the auxiliary fixing structure is mounted on the circular limit bracket; The auxiliary fixing structure includes: two pairs of excavation positioning sleeves, two pairs of lifting sleeves, two pairs of horizontal telescopic blocks, two pairs of horizontal sets of blocks, two pairs of horizontal driving machines, two pairs of horizontal driving gears, two pairs of vertical driving machines, two pairs of vertical driving gears, a plurality of telescopic slides, a plurality of telescopic sliders, two pairs of drilling locators and a plurality of electromagnetic telescopic locks; The two pairs of the work-type set blocks are installed in a cross shape on the circular limit bracket, and the two pairs of the work-type set blocks are respectively provided with work-type expansion slots and horizontal drive slots. The two pairs of the work-type set blocks are movably inserted in the inner side of the work-type expansion slots, and the two pairs of the horizontal driving machines are respectively installed on the two pairs of the work-type set blocks. The two pairs of the work-type horizontal expansion blocks are respectively provided with horizontal gear slot groups. The two pairs of the horizontal drive gears are respectively installed on the driving ends of the two pairs of the horizontal driving machines, and the two pairs of the horizontal drive gears are respectively engaged with the gears between the two pairs of the horizontal gear slot groups. The two pairs of the lifting set sleeves are respectively installed on the two pairs of the work-type set blocks, and the two pairs of the excavation positioning sleeves are respectively movably inserted in the two pairs of the lifting set sleeves. On the inner side of the cylinder, two pairs of the lifting sleeves are respectively provided with a vertical gear groove group, and two pairs of the excavation positioning sleeves are respectively provided with a vertical gear groove group. The two pairs of vertical drive machines are respectively installed on the outside of the two pairs of lifting sleeves, and the two pairs of vertical drive gears are respectively installed on the driving ends of the two pairs of vertical drive machines, and the two pairs of vertical drive gears are respectively on the inner sides of the two pairs of vertical gear groove groups. The two pairs of drilling locators are respectively installed on the inner sides of the two pairs of excavation positioning sleeves, and several telescopic slides are respectively installed on the two pairs of lifting sleeves and the inner sides of the two pairs of I-type telescopic grooves, and several telescopic sliders are respectively installed on the two pairs of excavation positioning sleeves and the two pairs of I-type set blocks.

2. A positioning and measuring device for resource exploration according to claim 1, characterized in that: The balancing structure includes: two pairs of negative pressure T-tubes, two pairs of negative pressure threaded rods, two pairs of negative pressure threaded tubes, two pairs of negative pressure brackets, two pairs of negative pressure driving machines, two pairs of negative pressure extrusion plates, two pairs of negative pressure set rubber rings, two pairs of negative pressure bevel gear sets, two pairs of circular transfer blocks, four pairs of longitudinal shafts, four pairs of longitudinal lifting bearing blocks, a plurality of longitudinal lifting spring columns and four pairs of transverse shafts; Two pairs of angle grooves are provided on the circular support block, and the two pairs of circular transfer blocks are respectively inserted into the inner sides of the two pairs of angle grooves through four pairs of transverse shafts. A pair of lifting bearing grooves are respectively provided on the two pairs of circular transfer blocks, and four pairs of longitudinal lifting bearing blocks are respectively movably inserted into the inner sides of the four pairs of lifting bearing grooves. Several longitudinal lifting spring columns are respectively installed on the inner sides of the four pairs of lifting bearing blocks, and several longitudinal lifting spring columns are respectively connected to the inner sides of the four pairs of lifting bearing grooves. Four pairs of longitudinal shafts are respectively inserted into the two pairs of longitudinal lifting bearing blocks, and two pairs of negative pressure T-tubes are inserted into the four On the longitudinal axis, the two pairs of negative pressure brackets are respectively installed on the inner sides of the two pairs of negative pressure T-tubes, the two pairs of negative pressure threaded tubes are respectively inserted on the two pairs of negative pressure brackets through bearings, the two pairs of negative pressure threaded rods are respectively movably inserted on the inner sides of the two pairs of negative pressure threaded tubes, the two pairs of negative pressure driving machines are respectively installed on the inner sides of the two pairs of negative pressure T-tubes, the two pairs of negative pressure bevel gear sets are respectively installed on the two pairs of negative pressure driving machines and the two pairs of negative pressure threaded tubes, the two pairs of negative pressure extrusion plates are respectively installed on the two pairs of negative pressure threaded rods, and the two pairs of negative pressure set rubber rings are respectively installed on the two pairs of negative pressure extrusion plates.

3. A positioning and measuring device for resource exploration according to claim 2, characterized in that: A level is provided on the circular support block.

4. A positioning and measuring device for resource exploration according to claim 3, characterized in that: A plurality of concave set blocks are arranged on the circular support block, and convex plug-in blocks are respectively arranged on the inner sides of the plurality of concave set blocks.

5. A positioning and measuring device for resource exploration according to claim 4, characterized in that: A plurality of the convex insertion blocks are respectively provided with supporting balls.

6. The positioning and measuring device for resource exploration according to claim 5, characterized in that: Support spring columns are arranged between the plurality of convex insertion blocks and the plurality of concave set blocks.

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