Coal sample preparation slitting equipment

Abstract

The invention discloses coal sample preparation and slitting equipment, and relates to the field of coal sample preparation and slitting, the coal sample preparation and slitting equipment comprises a mounting table, the top of the mounting table is fixedly connected with a supporting table, the supporting table is rotatably connected with a material receiving box, and the bottom of the material receiving box is provided with a driving separation mechanism connected with the supporting table. The mounting shaft is driven to rotate through the first driving mechanism, so that the conical feeding hopper, the flattening plate and the slitting box sequentially rotate to the position above the material receiving box, and operations such as coning, flattening, fixing and overturning slitting of coal are completed in cooperation with the driving mechanisms and the telescopic driving parts. In the slitting process, coal falls by means of the gravity of the coal and is matched with the cross-shaped slitting plate to achieve slitting, the problem that coal particles are broken due to extrusion slitting of a traditional slitting plate is solved, the slitting plate is effectively prevented from being damaged due to extrusion, and the slitting precision is greatly improved. And meanwhile, manual intervention is reduced through automatic operation, and the slitting efficiency is remarkably improved.

Description

Technical Field

[0001] This invention relates to coal sample preparation and cutting technology, specifically to a coal sample preparation and cutting device. Background Technology

[0002] In the field of coal testing and analysis, coal sample preparation and cutting is a crucial step, as its cutting quality directly affects the accuracy and reliability of subsequent coal sample testing results. Currently, traditional coal sample preparation and cutting methods have many drawbacks and cannot meet the high requirements of modern coal testing.

[0003] Traditional coal slitting equipment has a low level of automation, with most operations requiring manual labor. From coal stacking and flattening to slitting and unloading, all stages rely on manual operation. This not only increases the labor intensity of workers but also introduces significant arbitrariness, making it difficult to ensure consistency and standardization in each slitting operation, further impacting the accuracy and efficiency of coal slitting. For example, during manual stacking, variations in operator experience and technique can lead to differences in the shape and uniformity of the stack, resulting in inconsistent flattening and slitting effects. Simultaneously, manual unloading is inconvenient; the slitted coal must be manually removed by workers, which is not only inefficient but also prone to secondary contamination of the coal samples.

[0004] With the continuous development of the coal industry and the increasing requirements for coal quality testing, the existing traditional coal sample preparation and cutting equipment can no longer meet the actual needs. There is an urgent need for a new type of coal sample preparation and cutting equipment that can improve cutting accuracy and efficiency and achieve automated operation. Summary of the Invention

[0005] The purpose of this invention is to provide a coal sample preparation and cutting device to solve the problem that in the existing technology, most operations in the coal cutting process need to be completed manually, resulting in low cutting efficiency and cutting accuracy.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a coal sample preparation and cutting device, including an installation platform, a support platform fixedly connected to the top of the installation platform, a receiving box rotatably connected to the support platform, and a drive separation mechanism connected to the support platform at the bottom of the receiving box. The top of the mounting platform is rotatably connected to a mounting shaft, and a conical feed funnel is fixedly connected to the outer surface of the mounting shaft via a connecting plate. A first telescopic drive component is fixedly connected to the outer surface of the mounting shaft via a connecting plate, and a pressure plate is fixedly connected to the output end of the first telescopic drive component. The outer surface of the mounting shaft is fixedly connected to a second telescopic drive member via a connecting frame. The output end of the second telescopic drive member is fixedly connected to a transmission frame. A flipping block is rotatably connected inside the transmission frame. A transmission shaft is rotatably connected to the flipping block. A slitting box is fixedly connected to the bottom of the transmission shaft via bolts. A slitting plate is fixedly connected inside the slitting box. Multiple support plates are slidably connected inside the slitting box. A moving mechanism connected to the slitting box is fixedly connected to one side of the support plate. A connecting mechanism connected to the receiving box is provided at the bottom of the slitting box. The outer surface of the mounting shaft is connected to a first driving mechanism, the outer surface of the flipping block is connected to a second driving mechanism, and the outer surface of the transmission shaft is connected to a third driving mechanism.

[0007] Furthermore, the drive separation mechanism includes a first rotating drive component fixedly connected to the support platform. The output end of the first rotating drive component is fixedly connected to a connecting shaft rotatably connected to the support platform via a coupling. An electromagnet block is fixedly connected to the top of the connecting shaft. A connecting iron block is attracted to the top of the electromagnet block. The connecting iron block is fixedly connected to the bottom of the receiving box.

[0008] Furthermore, the moving mechanism includes a transmission column slidably connected to the slitting box, the bottom end of the transmission column being connected to a support plate, and the top end of the transmission column being fixedly connected to a third telescopic drive member fixedly connected to the slitting box via a connecting block.

[0009] Furthermore, the connecting mechanism includes an electromagnet ring fixedly connected to the slitting box, and a connecting iron ring fixedly connected to the top of the receiving box.

[0010] Furthermore, a mounting frame is fixedly connected to the conical feed hopper, a second rotation drive is fixedly connected to the mounting frame, a stirring shaft that is rotatably connected to the output end of the second rotation drive is fixedly connected to the second rotation drive, a spiral rod is fixedly connected to the bottom end of the stirring shaft, a stirring plate is fixedly connected to the outer surface of the stirring shaft, and a stirring column is fixedly connected to the bottom of the stirring plate.

[0011] Furthermore, the first driving mechanism includes a third rotational driving component fixedly connected to the mounting platform. The output end of the third rotational driving component is fixedly connected to a first driving shaft. A first driving gear is fixedly sleeved on the outer surface of the first driving shaft. A second driving gear is meshed with the outer surface of the first driving gear and fixedly sleeved on the mounting shaft.

[0012] Furthermore, the second drive mechanism includes a fourth telescopic drive member fixedly connected to the transmission frame. The output end of the fourth telescopic drive member is fixedly connected to a transmission rack via a connecting block. A transmission gear is meshed on one side of the transmission rack. A flipping shaft rotatably connected to the transmission frame is fixedly sleeved in the middle of the transmission gear. The flipping shaft is fixedly connected to the flipping block.

[0013] Furthermore, the third driving mechanism includes a fourth rotational driving member fixedly connected to the tilting block. The output end of the fourth rotational driving member is fixedly connected to a second driving shaft. A third driving gear is fixedly sleeved on the outer surface of the second driving shaft. The outer surface of the third driving gear is meshed with a fourth driving gear fixedly sleeved on the transmission shaft.

[0014] Compared with the prior art, the coal sample preparation and cutting device provided by the present invention has the following beneficial effects: The first drive mechanism rotates the mounting shaft, causing the conical feed hopper, pressure plate, and slitting box to rotate sequentially above the receiving box. In conjunction with various drive mechanisms and telescopic drive components, this completes the operations of coal stacking, flattening, fixing, and flipping for slitting. During the slitting process, the coal's own gravity is used to fall, combined with the cross-shaped slitting plate to achieve slitting, avoiding the coal particle breakage problem caused by the compression of traditional slitting plates. This effectively prevents damage to the slitting plate due to compression and greatly improves slitting accuracy. Simultaneously, automated operation reduces manual intervention, significantly improving slitting efficiency and meeting the needs of large-scale coal sample preparation and slitting, providing more accurate samples for subsequent coal sample testing.

[0015] A second rotary drive unit is connected to the mounting bracket on the conical feed hopper, driving the stirring shaft to rotate, which in turn activates the screw rod, stirring plate, and stirring column. The rotation of the screw rod causes the coal to move downwards evenly, effectively preventing material jamming during feeding and ensuring smooth feeding. The rotation of the stirring plate and stirring column uniformly mixes the coal, ensuring thorough mixing. Combined with the rotation of the receiving box, the coal is evenly piled into the cone within the box, further improving the pile-up accuracy. The uniformity of the pile-up directly affects the subsequent flattening and cutting effects, thereby improving the accuracy of coal sample testing and providing a reliable guarantee for coal quality inspection. Furthermore, the entire feeding and pile-up process is highly automated, making it easy for operators to use. Attached Figure Description

[0016] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in this invention. For those skilled in the art, other drawings can be obtained based on these drawings.

[0017] Figure 1 This is a first perspective view of the external structure of the present invention; Figure 2 This is a second perspective view of the external structure of the present invention; Figure 3 This is a perspective view of the internal structure of the present invention; Figure 4 For the present invention Figure 1 Enlarged view of A in the middle; Figure 5 For the present invention Figure 1 Enlarged view of B in the middle; Figure 6 For the present invention Figure 2 Enlarged view of C; Figure 7 For the present invention Figure 3 A magnified view of D.

[0018] Explanation of reference numerals in the attached figures: 1. Mounting platform; 2. Support platform; 3. Receiving box; 4. Mounting shaft; 5. Conical feed hopper; 6. First telescopic drive component; 7. Press plate; 8. Second telescopic drive component; 9. Transmission frame; 10. Tilting block; 11. Transmission shaft; 12. Slitting box; 13. Slitting plate; 14. Support plate; 21. First rotation drive component; 22. Connecting shaft; 23. Electromagnetic block; 24. Connecting iron block; 31. Transmission column; 32. Third telescopic drive component; 41. Electromagnetic ring; 42. Connecting... 51. Iron ring; 52. Mounting bracket; 53. Second rotation drive component; 54. Stirring shaft; 55. Spiral rod; 56. Stirring plate; 67. Stirring column; 68. Third rotation drive component; 69. First drive shaft; 60. First drive gear; 61. Second drive gear; 72. Fourth telescopic drive component; 73. Transmission rack; 74. Transmission gear; 85. Tilting shaft; 86. Fourth rotation drive component; 87. Second drive shaft; 88. Third drive gear; 89. Fourth drive gear. Detailed Implementation

[0019] To enable those skilled in the art to better understand the technical solution of the present invention, the present invention will be further described in detail below with reference to the accompanying drawings.

[0020] Example 1 Please see Figures 1 to 7 As shown, the present invention provides a coal sample preparation and cutting device, including a mounting platform 1, a support platform 2 fixedly connected to the top of the mounting platform 1, a receiving box 3 rotatably connected to the support platform 2, and a drive separation mechanism connected to the support platform 2 at the bottom of the receiving box 3. The top of the mounting platform 1 is rotatably connected to the mounting shaft 4. The outer surface of the mounting shaft 4 is fixedly connected to the conical feed funnel 5 via the connecting plate. The outer surface of the mounting shaft 4 is fixedly connected to the first telescopic drive component 6 via the connecting plate. The first telescopic drive component 6 is an electric telescopic rod or an electric hydraulic rod. The output end of the first telescopic drive component 6 is fixedly connected to the pressure plate 7. The outer surface of the mounting shaft 4 is fixedly connected to a second telescopic drive component 8 via a connecting frame. The second telescopic drive component 8 is an electric telescopic rod or an electric hydraulic rod. The output end of the second telescopic drive component 8 is fixedly connected to a transmission frame 9. A flipping block 10 is rotatably connected inside the transmission frame 9. A transmission shaft 11 is rotatably connected to the flipping block 10. A slitting box 12 is fixedly connected to the bottom of the transmission shaft 11 via bolts. A slitting plate 13 is fixedly connected inside the slitting box 12. Multiple support plates 14 are slidably connected inside the slitting box 12. A moving mechanism connected to the slitting box 12 is fixedly connected to one side of the support plate 14. A connecting mechanism connected to the receiving box 3 is provided at the bottom of the slitting box 12. The outer surface of the mounting shaft 4 is connected to a first drive mechanism, the outer surface of the flipping block 10 is connected to a second drive mechanism, and the outer surface of the drive shaft 11 is connected to a third drive mechanism.

[0021] The drive separation mechanism includes a first rotation drive component 21 fixedly connected to the support platform 2. The first rotation drive component 21 is a servo motor. The servo motor is controlled by a PLC programming program, which can control the servo motor to rotate forward and backward and rotate at different angles. The output end of the first rotation drive component 21 is fixedly connected to a connecting shaft 22 that is rotatably connected to the support platform 2 via a coupling. An electromagnet block 23 is fixedly connected to the top of the connecting shaft 22. A connecting iron block 24 is attracted to the top of the electromagnet block 23. The connecting iron block 24 is fixedly connected to the bottom of the receiving box 3.

[0022] The moving mechanism includes a transmission column 31 that is slidably connected to the slitting box 12. The bottom end of the transmission column 31 is connected to the support plate 14. The top end of the transmission column 31 is fixedly connected to a third telescopic drive member 32 that is fixedly connected to the slitting box 12 via a connecting block. The third telescopic drive member 32 is an electric telescopic rod or an electric hydraulic rod.

[0023] The connecting mechanism includes an electromagnet ring 41 fixedly connected to the slitting box 12, and a connecting iron ring 42 fixedly connected to the top of the receiving box 3.

[0024] The first drive mechanism includes a third rotation drive component 61 fixedly connected to the mounting platform 1. The third rotation drive component 61 is a servo motor, which is controlled by a PLC programming program. The servo motor can be controlled to rotate forward and backward and rotate at different angles. The output end of the third rotation drive component 61 is fixedly connected to a first drive shaft 62. A first drive gear 63 is fixedly sleeved on the outer surface of the first drive shaft 62. A second drive gear 64, which is fixedly sleeved on the outer surface of the first drive gear 63, is meshed with the mounting shaft 4. The third rotation drive component 61 drives the first drive shaft 62 to rotate, and the first drive shaft 62 drives the mounting shaft 4 to rotate through the first drive gear 63 and the second drive gear 64.

[0025] The second drive mechanism includes a fourth telescopic drive component 71 fixedly connected to the transmission frame 9. The fourth telescopic drive component 71 is an electric telescopic rod or an electric hydraulic rod. The output end of the fourth telescopic drive component 71 is fixedly connected to a transmission rack 72 through a connecting block. A transmission gear 73 is meshed on one side of the transmission rack 72. A flip shaft 74, which is rotatably connected to the transmission frame 9, is fixedly sleeved in the middle of the transmission gear 73. The flip shaft 74 is fixedly connected to the flip block 10. The fourth telescopic drive component 71 drives the transmission rack 72 to move, the transmission rack 72 drives the transmission gear 73 to rotate, and the transmission gear 73 drives the flip shaft 74 to rotate.

[0026] The third drive mechanism includes a fourth rotation drive component 81 fixedly connected to the flipping block 10. The fourth rotation drive component 81 is a servo motor, which is controlled by a PLC programming program. The servo motor can be controlled to rotate forward and backward and rotate at different angles. The output end of the fourth rotation drive component 81 is fixedly connected to a second drive shaft 82. A third drive gear 83 is fixedly sleeved on the outer surface of the second drive shaft 82. A fourth drive gear 84, which is fixedly sleeved on the outer surface of the third drive gear 83, is meshed with the outer surface of the third drive gear 83. The fourth rotation drive component 81 drives the second drive shaft 82 to rotate, and the second drive shaft 82 drives the transmission shaft 11 to rotate through the third drive gear 83 and the fourth drive gear 84.

[0027] The first drive mechanism drives the mounting shaft 4 to rotate, which in turn drives the conical feed hopper 5 to rotate, positioning it above the receiving box 3. Mixed coal is then placed into the conical feed hopper 5, flowing through it to the center of the receiving box 3. Simultaneously, the electromagnet block 23 is energized to attract the connecting iron block 24. The first rotation drive 21 then drives the connecting shaft 22 to rotate, which in turn drives the electromagnet block 23 to rotate, causing the connecting iron block 24 and the receiving box 3 to rotate, resulting in a uniform cone-shaped distribution of the coal. After the cone-shaped distribution is complete, the first drive mechanism drives the mounting shaft 4 to rotate, causing the pressure plate 7 to rotate above the receiving box 3. Then, the first telescopic drive 6 drives the pressing plate 7 to move downwards, flattening the coal behind the pile cone. Simultaneously, during flattening, the receiving box 3 rotates, ensuring the coal in the pile cone is evenly flattened. The pressing plate 7 then moves upwards, and the first drive mechanism rotates the mounting shaft 4 and the slitting box 12 above the receiving box 3. The second telescopic drive 8 then drives the transmission frame 9 downwards, which in turn drives the tilting block 10, transmission shaft 11, and slitting box 12 downwards, bringing the slitting box 12 into contact with the receiving box 3. Then, the electromagnet ring 41 at the bottom of the slitting box 12 is energized to attract the connecting iron ring 42 at the top of the receiving box 3, fixing the receiving box 3 onto the slitting box 12. Then... The third telescopic drive 32 drives the transmission column 31 to move downwards, which in turn drives the support plate 14 to move downwards, pressing the support plate 14 against the coal in the receiving box 3 to fix the coal. Then, the electromagnet block 23 connected to the bottom of the receiving box 3 is de-energized. Simultaneously, the second telescopic drive 8 drives the transmission frame 9 to move upwards, causing the slitting box 12 and the receiving box 3 to move upwards. Then, the second drive mechanism drives the tilting block 10 to rotate, causing the transmission shaft 11, the slitting box 12, and the receiving box 3 to rotate 180°. Then, the third telescopic drive 32 drives the transmission column 31 to move, which in turn drives the support plate 14 to move downwards within the slitting box 12. Finally, the coal in the receiving box 3... The coal is cut by the cross-shaped cutting plate 13 and enters the cutting box 12, achieving automated and uniform cutting of the coal. This greatly improves the cutting accuracy and efficiency. Simultaneously, the coal flows downwards under gravity and is isolated by the cutting plate 13, effectively preventing damage to the cutting plate 13 due to pressure between it and the plate. It also prevents the crushing of some coal particles caused by the traditional cutting plate 13, which would affect the cutting accuracy. After cutting, the two diagonally opposite support plates 14 in the cutting box 12 move downwards, causing the diagonally cut coal to move downwards and escape the isolation of the cutting plate 13. Then, a third drive mechanism drives the transmission shaft 11 to rotate, which in turn drives the cutting box 12 to rotate.At this point, the coal detached from the cutting plate 13 detaches from the support plate 14 under the action of centrifugal force and enters the cutting box 12. Then, it drives the two support plates 14 that just detached from the cutting plate 13 to move upwards, allowing them to rejoin the cutting plate 13. Subsequently, the second drive mechanism drives the tilting block 10 to rotate to its initial position. Simultaneously, the coal sample remaining on the support plate 14 after cutting enters the receiving box 3. The receiving box 3 is then fixed to the electromagnet block 23, and the cutting box 12 is no longer connected to the receiving box 3. The first drive mechanism then drives the mounting shaft 4 to rotate, causing the cutting box 12 to rotate to the discharge position. This causes the support plate 14 to move downwards, disengaging it from the cutting box 12, while simultaneously rotating the cutting box 12, discharging the coal sample inside. This achieves automatic separation of the cut coal sample and automatic discharge of the separated coal, eliminating the need for manual handling and simplifying operation.

[0028] A mounting frame 51 is fixedly connected to the conical feed hopper 5. A second rotation drive component 52 is fixedly connected to the mounting frame 51. The second rotation drive component 52 is a servo motor. The servo motor is controlled by a PLC programming program, which can control the servo motor to rotate forward and backward and the rotation angle. A stirring shaft 53 that is rotatably connected to the mounting frame 51 is fixedly connected to the output end of the second rotation drive component 52. A spiral rod 54 is fixedly connected to the bottom end of the stirring shaft 53. A stirring plate 55 is fixedly connected to the outer surface of the stirring shaft 53. A stirring column 56 is fixedly connected to the bottom of the stirring plate 55.

[0029] After coal is placed into the conical feed hopper 5, the hopper 5 then piles the coal into the receiving box 3. At this time, the second rotating drive 52 drives the stirring shaft 53 to rotate, which in turn drives the screw rod 54 to rotate. The screw rod 54 moves the coal downward, allowing it to pass evenly through the conical feed hopper 5 into the receiving box 3, preventing material jamming and improving the smoothness of the feed. Simultaneously, the stirring shaft 53 drives the stirring plate 55 to rotate, which in turn drives multiple stirring columns 56 to rotate. The stirring columns 56 evenly stir the coal, ensuring uniform mixing and even distribution of the coal entering the receiving box 3. This, combined with the rotation of the receiving box 3, ensures that the coal is evenly piled into a cone within the receiving box 3, further improving the accuracy of the pile and enhancing the accuracy of subsequent coal sample testing.

[0030] Working Principle: The first drive mechanism drives the mounting shaft 4 to rotate, which in turn drives the conical feed hopper 5 to rotate above the receiving box 3. Then, the mixed coal is placed into the conical feed hopper 5, and the coal passes through the hopper to the center of the receiving box 3. Simultaneously, the electromagnet block 23 is energized and attracts the connecting iron block 24. The first rotation drive component 21 then drives the connecting shaft 22 to rotate, which in turn drives the electromagnet block 23 to rotate. The electromagnet block 23 then drives the connecting iron block 24 and the receiving box 3 to rotate, resulting in a uniform cone-shaped distribution of the coal. After the cone-shaped distribution is complete, the first drive mechanism drives the mounting shaft 4 to rotate, causing the pressing plate 7 to rotate. The coal is moved above the receiving box 3, and then the first telescopic drive 6 drives the pressing plate 7 to move downwards, flattening the coal behind the pile. During this flattening process, the receiving box 3 rotates, ensuring the coal in the pile is evenly flattened. The pressing plate 7 then moves upwards, and the first drive mechanism rotates the mounting shaft 4 and the slitting box 12 above the receiving box 3. The second telescopic drive 8 then drives the transmission frame 9 downwards, which in turn drives the tilting block 10, the transmission shaft 11, and the slitting box 12 downwards, bringing the slitting box 12 into contact with the receiving box 3. Finally, the electromagnet ring 41 at the bottom of the slitting box 12 is energized to attract the connecting iron ring 42 at the top of the receiving box 3, thus fixing the receiving box 3 in place. On the slitting box 12, the third telescopic drive 32 drives the transmission column 31 to move downwards, which in turn drives the support plate 14 to move downwards, pressing the support plate 14 against the coal in the receiving box 3 to fix the coal. Then, the electromagnet block 23 connected to the bottom of the receiving box 3 is de-energized, and at the same time, the second telescopic drive 8 drives the transmission frame 9 to move upwards, causing the slitting box 12 and the receiving box 3 to move upwards. Then, the second drive mechanism drives the tilting block 10 to rotate, which in turn drives the transmission shaft 11, the slitting box 12, and the receiving box 3 to rotate 180°. Then, the third telescopic drive 32 drives the transmission column 31 to move, which in turn drives the support plate 14 to move downwards within the slitting box 12. The coal in the receiving box 3 is then cut by the cross-shaped cutting plate 13 and enters the cutting box 12, achieving automated and uniform coal cutting. This greatly improves the cutting accuracy and efficiency. Simultaneously, the downward flow of coal under gravity and the isolation provided by the cutting plate 13 effectively prevent damage to the cutting plate 13 due to pressure between it and the coal. It also prevents the crushing of coal particles caused by the traditional cutting plate 13, which would affect the cutting accuracy. After cutting, the two diagonally opposite support plates 14 in the cutting box 12 move downwards, causing the diagonally cut coal to move downwards and escape the isolation of the cutting plate 13. Then, the third drive mechanism drives the transmission shaft 11 to rotate.The drive shaft 11 drives the slitting box 12 to rotate. At this time, the coal detached from the slitting plate 13 detaches from the support plate 14 under the action of centrifugal force and enters the slitting box 12. Then, it drives the two support plates 14 that had just detached from the slitting plate 13 to move upwards, allowing them to re-enter the slitting plate 13. Subsequently, the second drive mechanism drives the tilting block 10 to rotate, returning it to its initial position. Simultaneously, the coal sample remaining on the support plate 14 after slitting enters the receiving box 3. The receiving box 3 is then fixed to the electromagnet block 23. When the cutting box 12 is no longer connected to the receiving box 3, the first drive mechanism drives the mounting shaft 4 to rotate, causing the cutting box 12 to rotate to the discharge position. This then drives the support plate 14 downwards, causing it to move away from the cutting box 12. Simultaneously, the cutting box 12 rotates, discharging the coal sample inside. This achieves automatic separation of the cut coal sample and automatic discharge of the separated coal, eliminating the need for manual handling and simplifying operation.

[0031] The foregoing has only described certain exemplary embodiments of the present invention by way of illustration. Undoubtedly, those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the foregoing drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of protection of the claims of the present invention.

Claims

1. A coal sample preparation and slitting device, characterized in that, Includes an installation platform (1), a support platform (2) is fixedly connected to the top of the installation platform (1), a receiving box (3) is rotatably connected to the support platform (2), and a drive separation mechanism connected to the support platform (2) is provided at the bottom of the receiving box (3). The top of the mounting platform (1) is rotatably connected to a mounting shaft (4), and a conical feed funnel (5) is fixedly connected to the outer surface of the mounting shaft (4) through a connecting plate. A first telescopic drive member (6) is fixedly connected to the outer surface of the mounting shaft (4) through a connecting plate, and a pressure plate (7) is fixedly connected to the output end of the first telescopic drive member (6). The outer surface of the mounting shaft (4) is fixedly connected to a second telescopic drive member (8) via a connecting frame. The output end of the second telescopic drive member (8) is fixedly connected to a transmission frame (9). A flipping block (10) is rotatably connected inside the transmission frame (9). A transmission shaft (11) is rotatably connected to the flipping block (10). A slitting box (12) is fixedly connected to the bottom of the transmission shaft (11) via bolts. A slitting plate (13) is fixedly connected inside the slitting box (12). Multiple support plates (14) are slidably connected inside the slitting box (12). A moving mechanism connected to the slitting box (12) is fixedly connected to one side of the support plate (14). A connecting mechanism connected to the receiving box (3) is provided at the bottom of the slitting box (12). The outer surface of the mounting shaft (4) is connected to a first driving mechanism, the outer surface of the flipping block (10) is connected to a second driving mechanism, and the outer surface of the transmission shaft (11) is connected to a third driving mechanism.

2. The coal sample preparation and cutting equipment according to claim 1, characterized in that, The drive separation mechanism includes a first rotating drive component (21) fixedly connected to the support platform (2). The output end of the first rotating drive component (21) is fixedly connected to a connecting shaft (22) rotatably connected to the support platform (2) via a coupling. An electromagnet block (23) is fixedly connected to the top of the connecting shaft (22). A connecting iron block (24) is attracted to the top of the electromagnet block (23). The connecting iron block (24) is fixedly connected to the bottom of the receiving box (3).

3. The coal sample preparation and cutting equipment according to claim 1, characterized in that, The moving mechanism includes a transmission column (31) that is slidably connected to the slitting box (12). The bottom end of the transmission column (31) is connected to the support plate (14). The top end of the transmission column (31) is fixedly connected to a third telescopic drive member (32) that is fixedly connected to the slitting box (12) via a connecting block.

4. The coal sample preparation and cutting equipment according to claim 1, characterized in that, The connecting mechanism includes an electromagnet ring (41) fixedly connected to the slitting box (12), and a connecting iron ring (42) fixedly connected to the top of the receiving box (3).

5. The coal sample preparation and cutting equipment according to claim 1, characterized in that, A mounting frame (51) is fixedly connected to the conical feed hopper (5). A second rotating drive (52) is fixedly connected to the mounting frame (51). A stirring shaft (53) that is rotatably connected to the output end of the second rotating drive (52) is fixedly connected to the mounting frame (51). A spiral rod (54) is fixedly connected to the bottom end of the stirring shaft (53). A stirring plate (55) is fixedly connected to the outer surface of the stirring shaft (53). A stirring column (56) is fixedly connected to the bottom of the stirring plate (55).

6. The coal sample preparation and slitting equipment according to claim 1, characterized in that, The first drive mechanism includes a third rotation drive member (61) fixedly connected to the mounting platform (1). The output end of the third rotation drive member (61) is fixedly connected to a first drive shaft (62). A first drive gear (63) is fixedly sleeved on the outer surface of the first drive shaft (62). A second drive gear (64) is fixedly sleeved on the outer surface of the first drive gear (63).

7. The coal sample preparation and cutting equipment according to claim 1, characterized in that, The second drive mechanism includes a fourth telescopic drive member (71) fixedly connected to the transmission frame (9). The output end of the fourth telescopic drive member (71) is fixedly connected to a transmission rack (72) via a connecting block. A transmission gear (73) is meshed on one side of the transmission rack (72). A flip shaft (74) rotatably connected to the transmission frame (9) is fixedly sleeved in the middle of the transmission gear (73). The flip shaft (74) is fixedly connected to the flip block (10).

8. The coal sample preparation and cutting equipment according to claim 1, characterized in that, The third drive mechanism includes a fourth rotation drive member (81) fixedly connected to the flip block (10). The output end of the fourth rotation drive member (81) is fixedly connected to a second drive shaft (82). A third drive gear (83) is fixedly sleeved on the outer surface of the second drive shaft (82). A fourth drive gear (84) is fixedly sleeved on the outer surface of the third drive gear (83).

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