Novel geological compass for geological mineral exploration

Abstract

The utility model discloses a novel geological compass for geological mineral exploration, which comprises a geological compass and an anti-drop box, the geological compass is movably connected to the inner cavity of the anti-drop box, the left side and the right side of the anti-drop box are movably connected with square shells, and the inner cavities of the square shells are movably connected with extrusion control plates. Through cooperative use of the clamping device, the square clamping block, the square stabilizing shell, the spring and the square stabilizing rod, the problem that an existing novel geological compass for geological mineral exploration is a geological exploration tool integrating multiple advanced technologies and has multiple functions of azimuth and inclination angle measurement, laser inclination measurement, GPS positioning and the like is solved; the problems that in the prior art, geological work is usually carried out in a severe environment, so that a geological compass needs to have good durability and drop resistance, the geological compass belongs to a precise instrument and is easy to damage if falling off, but an existing novel geological compass used for geological mineral exploration is not provided with a component for drop resistance and protection are solved.

Description

Technical Field

[0001] This utility model belongs to the field of new geological and mineral exploration technology, and in particular relates to a new geological compass for geological and mineral exploration. Background Technology

[0002] New geological and mineral exploration refers to the systematic, comprehensive, in-depth, and scientific investigation and research of geological and mineral resources based on traditional geological and mineral exploration methods, combined with modern scientific and technological means, and employing more advanced technologies and equipment. The aim is to discover mineral deposits and ore bodies, determine the quality, quantity, and distribution of mineral resources, and provide a scientific basis for mineral development and utilization. In summary, the existing technology has the following problems: The geological compass used in new geological and mineral exploration is a geological exploration tool integrating multiple advanced technologies. It has multiple functions such as measuring azimuth and tilt angles, laser tilt measurement, and GPS positioning. Geological work is usually carried out in harsh environments, therefore the geological compass needs to have good durability and shock resistance. As a precision instrument, the geological compass is easily damaged if dropped. However, the existing geological compasses used in new geological and mineral exploration lack shock-resistant components. Therefore, a new type of geological compass for geological and mineral exploration is proposed to solve the above problems. Utility Model Content

[0003] To address the problems existing in the prior art, this utility model provides a novel geological compass for geological and mineral exploration. This compass offers the advantage of being drop-proof, solving the problem that existing geological compasses for geological and mineral exploration are geological exploration tools integrating multiple advanced technologies, possessing functions such as measuring azimuth and tilt angles, laser tilt measurement, and GPS positioning. Geological work is often conducted in harsh environments, therefore, geological compasses need to have good durability and drop resistance. Geological compasses are precision instruments, easily damaged if dropped, but existing geological compasses for geological and mineral exploration lack drop-proof components.

[0004] This utility model is implemented as follows: a novel geological compass for geological and mineral exploration includes a geological compass and a shockproof box. The geological compass is movably connected to the inner cavity of the shockproof box. Square shells are movably connected to both the left and right sides of the shockproof box. A compression control plate is movably connected to the inner cavity of the square shell. The top of the compression control plate penetrates through the square shell and extends to the outer side of the inner cavity of the square shell. A clamping device is provided inside the square shell.

[0005] As a preferred embodiment of this utility model, the clamping device includes two clamping blocks. The side of the clamping block closest to the anti-drop box penetrates the square shell and extends to the outer side of the inner cavity of the square shell. The front and rear sides of the clamping blocks are fixedly connected to stabilizing square shells. The side of the stabilizing square shell furthest from the anti-drop box is fixedly connected to a spring. The surface of the spring is fixedly connected to the inner cavity of the square shell. By setting the clamping device, when the geological compass moves to or out of the anti-drop box, the clamping device has a limiting effect on the position of the geological compass.

[0006] As a preferred embodiment of this utility model, the inner cavity of the square shell is fixedly connected to two stabilizing rods that cooperate with the stabilizing square shell. The surface of the stabilizing rods is movably connected to the inner cavity of the stabilizing square shell. By setting the stabilizing rods, when the clamping block moves, it will drive the stabilizing square shell to move along the surface of the stabilizing rods. The cooperation between the stabilizing square shell and the stabilizing rods has a limiting effect on the movement position of the clamping block.

[0007] In a preferred embodiment of this invention, a compression column frame is fixedly connected to the side of the clamping block away from the anti-drop box. The inner cavity of the square shell is movably connected to two rotating compression frames that cooperate with the compression column frame via a rotating shaft. The inner cavity of the rotating compression frame is movably connected to the surface of the compression column frame. By setting the compression column frame and the rotating compression frame, when the rotating compression frame rotates, it can generate a compression force on the compression column frame. The compression column frame subjected to the compression force can drive the clamping block to move.

[0008] As a preferred embodiment of this utility model, the top of the square shell is fixedly connected to an auxiliary positioning frame for use with the extrusion control plate. The surface of the auxiliary positioning frame is movably connected to the inner cavity of the extrusion control plate. By setting the auxiliary positioning frame, the extrusion control plate is pulled to move along the surface of the auxiliary positioning frame. The auxiliary positioning frame has a limiting effect on the movement position of the extrusion control plate.

[0009] As a preferred embodiment of this utility model, the anti-drop box has four clamping slots on both the left and right sides that cooperate with the clamping blocks. The surface of the clamping blocks contacts the inner cavity of the clamping slots. By setting the clamping slots, when the square shell moves to the appropriate position, the compression control plate is released, and the restoring force generated by the spring returning to its shape will drive the clamping blocks to clamp into the inner cavity of the clamping slots. The cooperation between the clamping blocks and the clamping slots has a limiting effect on the position of the square shell.

[0010] As a preferred embodiment of this invention, the geological compass is fixedly connected to sliding rods on both its left and right sides, and the anti-fall box has sliding holes on both its left and right sides that cooperate with the sliding rods. The surface of the sliding rod is movably connected to the inner cavity of the sliding hole, and the opposite sides of the two sliding rods are fixedly connected to the surface of the square shell. By setting the sliding rods, when the geological compass moves, the sliding rods will be driven along the inner cavity of the sliding hole. The cooperation between the sliding rods and the sliding holes restricts the movement of the geological compass.

[0011] Compared with the prior art, the beneficial effects of this utility model are as follows:

[0012] 1. This utility model solves the problem of existing geological compasses used for geological and mineral exploration lacking drop protection components by setting up a clamping device, clamping block, stabilizing shell, spring, and stabilizing rod in combination. Geological compasses are geological exploration tools that integrate multiple advanced technologies. They have multiple functions such as measuring azimuth and tilt angle, laser tilt measurement, and GPS positioning. Geological work is usually carried out in harsh environments, so geological compasses need to have good durability and drop resistance. Geological compasses are precision instruments and are easily damaged if dropped.

[0013] 2. By setting up a clamping device, the squeezing column frame will be squeezed by the squeezing force of the rotating squeezing frame, which will drive the clamping block to move away from the anti-drop box. When the clamping block moves, it will drive the stabilizing shell to move along the surface of the stabilizing rod. At the same time, the squeezing force generated when the clamping block moves will cause the spring to undergo elastic deformation. The restoring force generated by the spring returning to its shape will drive the clamping block to be locked into the inner cavity of the clamping groove. The clamping device has a limiting effect on the position of the geological compass. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural schematic diagram provided in an embodiment of the present utility model;

[0015] Figure 2 This is a three-dimensional schematic diagram showing the connection between the geological compass and the shockproof box provided in this embodiment of the utility model;

[0016] Figure 3 This is a three-dimensional schematic diagram of the connection between the square shell and the sliding rod provided in this embodiment of the utility model;

[0017] Figure 4 This is a perspective sectional view of a square shell provided in an embodiment of the present invention.

[0018] In the diagram: 1. Geological compass; 2. Shockproof box; 3. Square shell; 4. Extrusion control plate; 5. Clamping device; 501. Clamping block; 502. Stabilizing square shell; 503. Spring; 6. Stabilizing square rod; 7. Extrusion column frame; 8. Rotating extrusion frame; 9. Auxiliary positioning frame; 10. Clamping square groove; 11. Sliding rod; 12. Sliding hole. Detailed Implementation

[0019] To further understand the invention content, features and effects of this utility model, the following embodiments are provided, and detailed descriptions are given in conjunction with the accompanying drawings.

[0020] The structure of this utility model will now be described in detail with reference to the accompanying drawings.

[0021] like Figures 1 to 4 As shown in the figure, a novel geological compass for geological and mineral exploration provided by this utility model embodiment includes a geological compass 1 and a shockproof box 2. The geological compass 1 is movably connected to the inner cavity of the shockproof box 2. Square shells 3 are movably connected to both the left and right sides of the shockproof box 2. A compression control plate 4 is movably connected to the inner cavity of the square shell 3. The top of the compression control plate 4 penetrates through the square shell 3 and extends to the outer side of the inner cavity of the square shell 3. A clamping device 5 is provided inside the square shell 3.

[0022] refer to Figure 4 The clamping device 5 includes two clamping blocks 501. The side of the clamping block 501 closest to the anti-drop box 2 passes through the square shell 3 and extends to the outside of the inner cavity of the square shell 3. The front and rear sides of the clamping block 501 are fixedly connected to a stabilizing square shell 502. The side of the stabilizing square shell 502 away from the anti-drop box 2 is fixedly connected to a spring 503. The surface of the spring 503 is fixedly connected to the inner cavity of the square shell 3.

[0023] The above solution is adopted: by setting a clamping device 5, when the geological compass 1 moves to or out of the anti-drop box 2, the clamping device 5 has a limiting effect on the position of the geological compass 1.

[0024] refer to Figure 4 The inner cavity of the square shell 3 is fixedly connected to two stabilizing square rods 6 that cooperate with the stabilizing square shell 502. The surface of the stabilizing square rods 6 is movably connected to the inner cavity of the stabilizing square shell 502.

[0025] The above solution is adopted: by setting a stabilizing rod 6, when the clamping block 501 moves, it will drive the stabilizing shell 502 to move along the surface of the stabilizing rod 6. The cooperation between the stabilizing shell 502 and the stabilizing rod 6 has a limiting effect on the movement position of the clamping block 501.

[0026] refer to Figure 4The side of the clamping block 501 away from the drop box 2 is fixedly connected to the extrusion column frame 7. The inner cavity of the square shell 3 is movably connected to two rotating extrusion frames 8 that cooperate with the extrusion column frame 7 through a rotating shaft. The inner cavity of the rotating extrusion frame 8 is movably connected to the surface of the extrusion column frame 7.

[0027] The above scheme is adopted: by setting the extrusion column frame 7 and the rotating extrusion frame 8, when the rotating extrusion frame 8 rotates, it can generate extrusion force on the extrusion column frame 7. The extrusion column frame 7 subjected to extrusion force can drive the clamping block 501 to move.

[0028] refer to Figure 3 The top of the square shell 3 is fixedly connected to an auxiliary positioning frame 9 that works with the extrusion control plate 4. The surface of the auxiliary positioning frame 9 is movably connected to the inner cavity of the extrusion control plate 4.

[0029] The above solution is adopted: by setting an auxiliary positioning frame 9, the extrusion control plate 4 is pulled and moved along the surface of the auxiliary positioning frame 9. The auxiliary positioning frame 9 has a limiting effect on the movement position of the extrusion control plate 4.

[0030] refer to Figure 1 and Figure 2 The left and right sides of the anti-drop box 2 are provided with four clamping slots 10 that are used in conjunction with the clamping block 501. The surface of the clamping block 501 is in contact with the inner cavity of the clamping slot 10.

[0031] The above solution is adopted: by setting the clamping groove 10, when the square shell 3 moves to the appropriate position, the compression control plate 4 is released, and the restoring force generated by the spring 503 returning to its shape will drive the clamping block 501 to clamp into the inner cavity of the clamping groove 10. The cooperation between the clamping block 501 and the clamping groove 10 has a limiting effect on the position of the square shell 3.

[0032] refer to Figure 2 The geological compass 1 is fixedly connected to the left and right sides with sliding rods 11. The anti-fall box 2 is provided with sliding holes 12 on the left and right sides to cooperate with the sliding rods 11. The surface of the sliding rods 11 is movably connected to the inner cavity of the sliding holes 12. The opposite sides of the two sliding rods 11 are fixedly connected to the surface of the square shell 3.

[0033] The above solution is adopted: by setting a sliding rod 11, when the geological compass 1 moves, it will drive the sliding rod 11 along the inner cavity of the sliding hole 12. The cooperation between the sliding rod 11 and the sliding hole 12 has a limiting effect on the movement position of the geological compass 1.

[0034] The working principle of this utility model:

[0035] When using the geological compass 1 for new geological and mineral exploration, if drop protection is required, the user first pulls the two pressure control plates 4 to opposite sides, causing them to move along the surface of the auxiliary positioning frame 9. As the pressure control plates 4 move, they exert pressure on the two rotating pressure frames 8. The rotating pressure frames 8, under this pressure, will rotate along the surface of the pressure column frame 7 via a pivot. The pressure exerted on the pressure column frame 7 by the rotating pressure frames 8 will cause the clamping block 501 to move away from the drop-proof box 2. When the clamping block 501 moves, it will cause the stabilizing shell 502 to move along the surface of the stabilizing rod 6. Simultaneously, the pressure generated by the movement of the clamping block 501 causes the spring 503 to undergo elastic deformation. When block 501 disengages from the clamping groove 10 and moves completely into the inner cavity of the square shell 3, the compression control plate 4 can be pulled back. The compression control plate 4 will move the geological compass 1 into the inner cavity of the anti-fall box 2. At the same time, the geological compass 1 will move the sliding rod 11 along the inner cavity of the sliding hole 12. After the geological compass 1 has moved completely into the inner cavity of the anti-fall box 2, the two compression control plates 4 are released. The restoring force generated by the spring 503 returning to its shape will drive the clamping block 501 to be clamped into the inner cavity of the clamping groove 10. The cooperation of the clamping block 501 and the clamping groove 10 has a limiting effect on the position of the square shell 3, the sliding rod 11 and the geological compass 1. At this time, the geological compass 1 is stably stored in the anti-fall box 2, and the geological compass 1 used for new geological and mineral exploration completes the anti-fall protection.

[0036] In summary, this new geological compass for geological and mineral exploration, through the coordinated use of a clamping device 5, a clamping block 501, a stabilizing shell 502, a spring 503, and a stabilizing rod 6, solves the problem that existing geological compasses for geological and mineral exploration are geological exploration tools integrating multiple advanced technologies, possessing functions such as measuring azimuth and tilt angles, laser tilt measurement, and GPS positioning. Geological work is usually carried out in harsh environments, therefore, geological compasses need to have good durability and drop resistance. Geological compasses are precision instruments, and are easily damaged if dropped. However, existing geological compasses for geological and mineral exploration lack drop-proof components.

[0037] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0038] Although 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 alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A novel geological compass for geological and mineral exploration, comprising a geological compass (1) and a shockproof case (2), characterized in that: The geological compass (1) is movably connected to the inner cavity of the drop-proof box (2). The left and right sides of the drop-proof box (2) are movably connected to square shells (3). The inner cavity of the square shells (3) is movably connected to a compression control plate (4). The top of the compression control plate (4) penetrates through the square shells (3) and extends to the outside of the inner cavity of the square shells (3). A clamping device (5) is provided inside the square shells (3).

2. The novel geological compass for geological and mineral exploration as described in claim 1, characterized in that: The clamping device (5) includes two clamping blocks (501). The clamping block (501) extends through the square shell (3) and out to the outside of the inner cavity of the square shell (3) on the side near the anti-drop box (2). The front and rear sides of the clamping block (501) are fixedly connected to a stabilizing square shell (502). The side of the stabilizing square shell (502) away from the anti-drop box (2) is fixedly connected to a spring (503). The surface of the spring (503) is fixedly connected to the inner cavity of the square shell (3).

3. A novel geological compass for geological and mineral exploration as described in claim 2, characterized in that: The inner cavity of the square shell (3) is fixedly connected to two stabilizing rods (6) that cooperate with the stabilizing square shell (502), and the surface of the stabilizing rods (6) is movably connected to the inner cavity of the stabilizing square shell (502).

4. A novel geological compass for geological and mineral exploration as described in claim 2, characterized in that: The clamping block (501) is fixedly connected to the side away from the anti-drop box (2) with an extrusion column frame (7). The inner cavity of the square shell (3) is movably connected to two rotating extrusion frames (8) that cooperate with the extrusion column frame (7) through a rotating shaft. The inner cavity of the rotating extrusion frame (8) is movably connected to the surface of the extrusion column frame (7).

5. A novel geological compass for geological and mineral exploration as described in claim 1, characterized in that: The top of the square shell (3) is fixedly connected to an auxiliary positioning frame (9) that works in conjunction with the extrusion control plate (4), and the surface of the auxiliary positioning frame (9) is movably connected to the inner cavity of the extrusion control plate (4).

6. A novel geological compass for geological and mineral exploration as described in claim 2, characterized in that: The drop-proof box (2) has four clamping slots (10) on both the left and right sides that are used in conjunction with the clamping blocks (501). The surface of the clamping blocks (501) is in contact with the inner cavity of the clamping slots (10).

7. A novel geological compass for geological and mineral exploration as described in claim 1, characterized in that: The geological compass (1) is fixedly connected to sliding rods (11) on both the left and right sides. The anti-fall box (2) is provided with sliding holes (12) on both the left and right sides to cooperate with the sliding rods (11). The surface of the sliding rods (11) is movably connected to the inner cavity of the sliding holes (12). The opposite sides of the two sliding rods (11) are fixedly connected to the surface of the square shell (3).

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