Polymetallic ore metallogenic law analysis device based on geological big data

Abstract

The utility model belongs to the field of analysis equipment, and particularly relates to a polymetallic ore metallogenic law analysis device based on geological big data, which comprises a fixed frame, a plurality of moving wheels are mounted at the bottom of the fixed frame, a mounting rack is fixedly mounted at the top of the fixed frame, and a geological radar sensor is mounted at the bottom of the mounting rack. A geomagnetic sensor is mounted on the outer side of the fixing frame, one side of the mounting rack is connected with an X-ray fluorescence spectrometer through a rotating mechanism, a supporting frame is fixedly mounted at the top of the fixing frame, a handle is fixedly mounted on one side of the supporting frame, and a fixing plate is fixedly mounted on the other side of the supporting frame. The device is reasonable in design, the position of the X-ray fluorescence spectrophotometer is flexibly adjusted by rotating the locking bolt, the X-ray fluorescence spectrophotometer is driven by the driving motor to swing back and forth so as to enlarge the acquisition range, meanwhile, data are acquired cooperatively by means of various sensors, and the analysis result of the metallogenic law of polymetallic ore is visually displayed after the data are processed and analyzed by the controller.

Description

Technical Field

[0001] This utility model relates to the field of analytical equipment technology, and in particular to a device for analyzing the metallogenic regularity of polymetallic minerals based on geological big data. Background Technology

[0002] With the ever-increasing demand for mineral resources, the efficient and accurate exploration of polymetallic mineral resources has become increasingly important. The metallogenic regularity of polymetallic minerals is complex, and traditional analytical methods mainly rely on the experience and judgment of geologists and a small amount of field sampling data, which makes it difficult to fully and deeply reveal the metallogenic regularity.

[0003] Geological big data encompasses a vast amount of geological information, including data on geological structure, rock composition, geophysics, and geochemistry. However, there is currently a lack of devices capable of effectively integrating and analyzing this big data to accurately interpret the metallogenic regularity of polymetallic deposits. This results in low efficiency, high exploration costs, and unsatisfactory mineralization accuracy during polymetallic deposit exploration. Therefore, we propose a polymetallic deposit metallogenic regularity analysis device based on geological big data to address the aforementioned issues. Utility Model Content

[0004] The purpose of this invention is to address the shortcomings of existing technologies by proposing a device for analyzing the metallogenic regularity of polymetallic minerals based on geological big data.

[0005] To achieve the above objectives, the present invention adopts the following technical solution:

[0006] A device for analyzing the metallogenic regularity of polymetallic minerals based on geological big data includes a fixed frame, with multiple moving wheels installed at the bottom of the fixed frame, a mounting frame fixedly installed at the top of the fixed frame, a ground-penetrating radar sensor installed at the bottom of the mounting frame, a geomagnetic sensor installed on the outside of the fixed frame, and an X-ray fluorescence spectrometer connected to one side of the mounting frame via a rotating mechanism.

[0007] A support frame is fixedly installed on the top of the fixed frame, a handle is fixedly installed on one side of the support frame, a fixed plate is fixedly installed on the other side of the support frame, a controller is installed on the top of the fixed plate, the controller is equipped with a display, and the geomagnetic sensor, the ground-penetrating radar sensor, and the X-ray fluorescence spectrometer are all electrically connected to the controller.

[0008] Preferably, the rotating mechanism includes a rotating sleeve, an adjusting component, and a vertical plate. The rotating sleeve is rotatably mounted on the top of the mounting frame. An adjusting component is mounted on one side of the rotating sleeve. A vertical plate is provided at one end of the adjusting component, and the X-ray fluorescence spectrometer is fixedly mounted on the vertical plate.

[0009] Preferably, the adjustment assembly includes a connecting rod, a rectangular groove, and a rectangular seat. The connecting rod is fixedly installed on the rotating sleeve. One end of the connecting rod has a rectangular groove, and the rectangular seat is slidably installed in the rectangular groove. The rectangular seat is fixedly connected to the vertical plate.

[0010] Preferably, a threaded hole is provided on the top inner wall of the rectangular groove, and a locking bolt is installed in the threaded hole, and the locking bolt is compatible with the rectangular seat.

[0011] Preferably, a control box is installed on the top of the mounting bracket, a movable plate is slidably installed inside the control box, a transmission mechanism is provided between the movable plate and the rotating sleeve, and a drive mechanism connected to the movable plate is provided on the control box.

[0012] Preferably, the drive mechanism includes a drive motor and a reciprocating lead screw. The drive motor is fixedly installed on one side of the control box, and the reciprocating lead screw is rotatably installed on the inner walls of both sides of the control box. The drive motor is fixedly connected to the corresponding output shaft, and the moving plate is threaded onto the reciprocating lead screw.

[0013] Preferably, the transmission mechanism includes a rotating gear and a rack seat. The rotating gear is fixedly mounted on the outer side of the rotating sleeve, and the rack seat is fixedly mounted on the movable plate, and the rack seat meshes with the corresponding rotating gear.

[0014] Preferably, the top of the mounting bracket is provided with an annular rotating groove, and the rotating sleeve is rotatably connected to the annular rotating groove.

[0015] The beneficial effects of this utility model are:

[0016] 1. The rectangular seat can be fixed or released by rotating the locking bolt. The adjusting seat can be moved along with the vertical plate and the X-ray fluorescence spectrometer, so as to adjust the distance between the X-ray fluorescence spectrometer and the rotating sleeve as needed.

[0017] 2. By starting the drive motor, the drive motor can drive the reciprocating lead screw to rotate, the reciprocating lead screw can drive the moving plate and rack seat to move, the rack seat can drive the rotating gear to reciprocate, and the rotating gear can drive the rotating sleeve, the adjusting component and the X-ray fluorescence spectrometer to oscillate back and forth, which can increase the acquisition range of the X-ray fluorescence spectrometer.

[0018] 3. High-frequency electromagnetic waves are emitted by ground-penetrating radar sensors to obtain underground geological structure information based on the characteristics of reflected waves; rock samples are irradiated by X-ray fluorescence spectrometers to analyze fluorescence spectra and determine rock elemental composition; geomagnetic sensors monitor changes in the Earth's magnetic field in real time. Multiple sensors work together to complete comprehensive data acquisition under different terrain conditions and send the acquired data to the controller. The controller processes, integrates, and analyzes the data, classifies geological structures, rock composition, and geochemical data, identifies characteristic patterns related to polymetallic mineralization, and displays the analysis results of polymetallic mineralization patterns intuitively on a monitor. Attached Figure Description

[0019] Figure 1 This is a three-dimensional structural diagram of a polymetallic mineralization regularity analysis device based on geological big data proposed in this utility model;

[0020] Figure 2 This is a partial three-dimensional structural diagram of a polymetallic mineralization regularity analysis device based on geological big data proposed in this utility model.

[0021] Figure 3 for Figure 2 A schematic diagram of a partial three-dimensional structure;

[0022] Figure 4 for Figure 3 A partial cross-sectional three-dimensional structural diagram.

[0023] In the diagram: 101, fixed frame; 102, caster wheel; 103, mounting bracket; 104, support frame; 105, handle; 201, fixed plate; 202, controller; 203, display; 204, geomagnetic sensor; 205, ground-penetrating radar sensor; 206, X-ray fluorescence spectrometer; 301, rotating sleeve; 302, adjusting assembly; 3021, connecting rod; 3022, rectangular groove; 3023, rectangular base; 303, vertical plate; 4, control box; 401, rotating gear; 402, moving plate; 403, rack and pinion seat; 501, drive motor; 502, reciprocating lead screw; 601, threaded hole; 602, locking bolt. Detailed Implementation

[0024] The following is in conjunction with the appendix Figure 1-4 This application will be described in further detail.

[0025] This application discloses a device for analyzing the metallogenic regularity of polymetallic minerals based on geological big data.

[0026] Reference Figure 1-4A device for analyzing the metallogenic regularity of polymetallic mineralization based on geological big data includes a fixed frame 101, with multiple casters 102 mounted on the bottom of the fixed frame 101, a mounting frame 103 fixedly mounted on the top of the fixed frame 101, a ground-penetrating radar sensor 205 mounted on the bottom of the mounting frame 103, a geomagnetic sensor 204 mounted on the outside of the fixed frame 101, an X-ray fluorescence spectrometer 206 connected to one side of the mounting frame via a rotating mechanism, a support frame 104 fixedly mounted on the top of the fixed frame 101, a handle 105 fixedly mounted on one side of the support frame 104, a fixed plate 201 fixedly mounted on the other side of the support frame 104, a controller 202 mounted on the top of the fixed plate 201, a display 203 mounted on the controller 202, and the geomagnetic sensor 204, the ground-penetrating radar sensor 205, and the X-ray fluorescence spectrometer 206 all electrically connected to the controller 202.

[0027] In this embodiment, the rotating mechanism includes a rotating sleeve 301, an adjusting component 302, and a vertical plate 303. The rotating sleeve 301 is rotatably mounted on the top of the mounting frame 103. An adjusting component 302 is mounted on one side of the rotating sleeve 301. A vertical plate 303 is provided at one end of the adjusting component 302, and the X-ray fluorescence spectrometer 206 is fixedly mounted on the vertical plate 303. By providing the adjusting component 302, the distance between the X-ray fluorescence spectrometer 206 and the rotating sleeve 301 can be adjusted.

[0028] In this embodiment, the adjustment component 302 includes a connecting rod 3021, a rectangular groove 3022, and a rectangular seat 3023. The connecting rod 3021 is fixedly installed on the rotating sleeve 301. A rectangular groove 3022 is provided at one end of the connecting rod 3021. The rectangular seat 3023 is slidably installed in the rectangular groove 3022, and the rectangular seat 3023 is fixedly connected to the vertical plate 303. By providing the rectangular seat 3023 and the rectangular groove 3022, the X-ray fluorescence spectrometer 206 can be guided, so that the X-ray fluorescence spectrometer 206 can move stably.

[0029] In this embodiment, a threaded hole 601 is provided on the top inner wall of the rectangular groove 3022. A locking bolt 602 is installed in the threaded hole 601, and the locking bolt 602 is adapted to the rectangular seat 3023. By rotating the locking bolt 602, the rectangular seat 3023 can be fixed and unfixed.

[0030] In this embodiment, a control box 4 is installed on the top of the mounting bracket 103. A movable plate 402 is slidably installed inside the control box 4. A transmission mechanism is provided between the movable plate 402 and the rotating sleeve 301. A drive mechanism connected to the movable plate 402 is provided on the control box 4. The drive mechanism includes a drive motor 501 and a reciprocating screw 502. The drive motor 501 is fixedly installed on one side of the control box 4. The reciprocating screw 502 is rotatably installed on the inner walls of both sides of the control box 4. The drive motor 501 is fixedly connected to the corresponding output shaft. The movable plate 402 is threaded onto the reciprocating screw 502. By providing a drive mechanism, the rotation of the reciprocating screw 502 can drive the movable plate 402 to move back and forth.

[0031] In this embodiment, the transmission mechanism includes a rotating gear 401 and a rack seat 403. The rotating gear 401 is fixedly installed on the outer side of the rotating sleeve 301, and the rack seat 403 is fixedly installed on the movable plate 402. The rack seat 403 meshes with the corresponding rotating gear 401. The movement of the rack seat 403 can drive the rotating gear 401 to rotate, thereby achieving the purpose of reciprocating rotation of the rotating sleeve 301. The top of the mounting bracket 103 is provided with an annular rotating groove, and the rotating sleeve 301 is rotatably connected to the annular rotating groove. By providing the annular rotating groove, the rotating sleeve 301 can be guided, thereby achieving the purpose of stable rotation of the rotating sleeve 301.

[0032] In this invention, the rectangular base 3023 can be fixed and released by rotating the locking bolt 602. The adjusting base can be moved along with the vertical plate 303 and the X-ray fluorescence spectrometer 206, allowing for adjustment of the distance between the X-ray fluorescence spectrometer 206 and the rotating sleeve 301 as needed. The drive motor 501 rotates the reciprocating screw 502, which in turn moves the moving plate 402 and the rack seat 403. The rack seat 403 then rotates the rotating gear 401, which in turn rotates the rotating sleeve 301, the adjusting assembly 302, and the X-ray fluorescence spectrometer 206. The repeated oscillation increases the acquisition range of the X-ray fluorescence spectrometer 206. High-frequency electromagnetic waves are emitted by the ground-penetrating radar sensor 205, and information on underground geological structures is obtained based on the reflection wave characteristics. The X-ray fluorescence spectrometer 206 irradiates rock samples, and the fluorescence spectrum is analyzed to determine the elemental composition of the rocks. The geomagnetic sensor 204 monitors changes in the Earth's magnetic field in real time. Multiple sensors work together to complete comprehensive data acquisition under different terrain conditions and send the acquired data to the controller 202. The controller 202 processes, integrates, and analyzes the data, classifying geological structures, rock composition, and geochemical data, identifying characteristic patterns related to polymetallic mineralization, and displaying the analysis results of polymetallic mineralization patterns intuitively on the display 203.

[0033] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A multi-metallic ore metallogenic regularity analysis device based on geological big data, characterized in that, The utility model provides a geological surveying vehicle, including fixed frame (101), the bottom of fixed frame (101) is equipped with a plurality of mobile wheels (102), the top of fixed frame (101) is fixedly installed with mounting bracket (103), the bottom of mounting bracket (103) is installed with geological radar sensor (205), the outside of fixed frame (101) is installed with geomagnetic sensor (204), one side of mounting bracket (103) is connected with X ray fluorescence spectrometer (206) through rotating mechanism, The top of fixed frame (101) is fixedly installed with support frame (104), one side of support frame (104) is fixedly installed with handle (105), the other side of support frame (104) is fixedly installed with fixed plate (201), the top of fixed plate (201) is installed with controller (202), the display (203) of controller (202) is equipped with, and the geomagnetic sensor (204), geological radar sensor (205), X ray fluorescence spectrometer (206) are electrically connected with controller (202).

2. The multi-metallic ore metallogenic regularity analysis device based on geological big data according to claim 1, characterized in that, The rotating mechanism includes rotating sleeve (301), adjusting assembly (302) and vertical plate (303), the rotating sleeve (301) is rotatably installed on the top of mounting bracket (103), one side of rotating sleeve (301) is installed with adjusting assembly (302), one end of adjusting assembly (302) is equipped with vertical plate (303), and X ray fluorescence spectrometer (206) is fixedly installed on vertical plate (303).

3. The multi-metallic ore metallogenic regularity analysis device based on geological big data according to claim 2, characterized in that, The adjusting assembly (302) includes connecting rod (3021), rectangular groove (3022) and rectangular seat (3023), the connecting rod (3021) is fixedly installed on rotating sleeve (301), one end of connecting rod (3021) is provided with rectangular groove (3022), the rectangular seat (3023) is slidably installed in rectangular groove (3022), and the rectangular seat (3023) is fixedly connected with vertical plate (303).

4. The multi-metallic ore metallogenic regularity analysis device based on geological big data according to claim 3, characterized in that, Threaded holes (601) are formed in the top inner wall of rectangular groove (3022), lock bolts (602) are screwedly installed in threaded holes (601), and the lock bolts (602) are matched with the rectangular seat (3023).

5. The geological big data-based multi-metal deposit metallogenic regularity analysis device according to claim 1, characterized in that, The top of mounting bracket (103) is installed with control box (4), the movable plate (402) is slidably installed in control box (4), the transmission mechanism is arranged between movable plate (402) and rotating sleeve (301), and the drive mechanism is arranged on control box (4) and connected with movable plate (402).

6. The multi-metallic ore metallogenic regularity analysis device based on geological big data according to claim 5, characterized in that, The drive mechanism includes drive motor (501) and reciprocating screw rod (502), the drive motor (501) is fixedly installed on one side of control box (4), the reciprocating screw rod (502) is rotatably installed on the inner wall of both sides of control box (4), the drive motor (501) is fixedly connected with the corresponding output shaft, and the movable plate (402) is screwedly sleeved on the reciprocating screw rod (502).

7. The multi-metallic ore metallogenic regularity analysis device based on geological big data according to claim 5, characterized in that, The transmission mechanism comprises rotating gears (401) and a rack seat (403), the rotating gears (401) are fixedly installed on the outside of the rotating sleeve (301), the rack seat (403) is fixedly installed on the moving plate (402), and the rack seat (403) is engaged with the corresponding rotating gear (401). 8.The geological big data based multi-metal deposit metallogenic regularity analysis device according to claim 1, characterized in that, An annular rotating groove is formed in the top of the mounting frame (103), and the rotating sleeve (301) is rotationally connected with the annular rotating groove.

Images