A blood anticoagulation device for animal disease detection

Abstract

This invention discloses a blood anticoagulation device for animal disease detection, relating to the field of animal disease detection technology. It includes a housing, a rotation assembly, and a displacement assembly. A cover is provided on the outer top of the housing, and a connecting groove is formed on the inner side of the cover. A sealing cap is placed on the outer top of the cover. After the test tube is clamped, the lifting plate continues to move upward, allowing the lifting plate to move the test tube upward and pass through the connecting groove. After the test tube passes through the connecting groove, the lifting plate moves downward again, at which point the test tube can again drive the active rotating wheel to rotate and cause the spring wheel to store energy. After the test tube returns to its original position, the electromagnet is de-energized and separates from the test tube, releasing the stored energy of the spring wheel. This allows the rotating plate to drive the test tube to rotate and bring the next test tube closer to the clamping assembly. By moving the test tube up and down and rotating it during storage, this effectively prevents animal blood from coagulating during transportation, thus avoiding affecting the detection results.

Description

Technical Field

[0001] This invention relates to the field of animal disease detection technology, specifically to a blood anticoagulation device for animal disease detection. Background Technology

[0002] In the process of livestock farming, it is usually necessary to conduct regular disease testing on livestock. Through disease testing, animals with diseases can be effectively identified and isolated to prevent the spread of the disease and losses to the farm. In the process of animal disease testing, it is usually chosen to draw animal blood and send the blood to the laboratory for testing.

[0003] Because of the large number of animals and the fact that disease monitoring is a unified inspection, the overall process of drawing blood from animals is quite long. Since blood clotting can affect the test results, and the presence of anticoagulants in animal blood can also lead to inaccurate test results, current animal disease testing requires the rapid extraction of animal blood and its rapid delivery to the laboratory. This greatly increases the overall workload and difficulty of disease testing.

[0004] Therefore, in view of this, we have studied and improved the existing structure and its shortcomings, and proposed a blood anticoagulation device for animal disease detection. Summary of the Invention

[0005] The purpose of this invention is to provide a blood anticoagulation device for animal disease detection, so as to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a blood anticoagulation device for animal disease detection, comprising a housing, a transposition assembly, and a displacement assembly. A cover is provided on the outer top of the housing, and a communicating groove is formed on the inner side of the cover. A sealing cap is placed on the outer top of the cover. The transposition assembly is located at the bottom inner side of the cover. The transposition assembly includes a driving wheel, a rubber pad, a spring wheel, a driven wheel, a pulley, a transmission belt, a first bevel gear, a double-headed bevel gear, and a second bevel gear. A rubber pad is connected to the outer surface of the driving wheel, and the outer front part of the driving wheel... A mainspring wheel is provided, and a driven wheel is provided on the outer front part of the mainspring wheel. A pulley is provided on the outer front part of the driven wheel. A drive belt is connected to the outer end of the pulley, and a first bevel tooth is shown on the outer bottom of the drive belt. A double-headed bevel tooth is provided on the outer right side of the first bevel tooth, and a second bevel tooth is connected to the outer bottom of the double-headed bevel tooth. A rotating plate is provided on the outer bottom of the second bevel tooth, and a placement groove is opened on the inner side of the rotating plate. A test tube is placed on the inner side of the placement groove. A displacement component is placed on the outer bottom of the rotating plate, and a clamping component is provided on the left end of the displacement component.

[0007] Furthermore, the connecting grooves are arranged in an array at the top of the cover, and the vertical center line of the connecting grooves coincides with the vertical center line of the placement grooves.

[0008] Furthermore, the pulley is connected to the first bevel gear via a transmission belt, and the first bevel gear meshes with the double-headed bevel gear.

[0009] Furthermore, the double-headed bevel teeth mesh with the second bevel teeth, and the second bevel teeth drive the rotating plate to rotate.

[0010] Furthermore, the displacement assembly includes an auxiliary rotating shaft, a motor, a fixed base, a lead screw, a limiting rod, and a sliding groove. The motor is connected to the bottom outer side of the auxiliary rotating shaft, and the fixed base is installed on the bottom outer side of the motor. The output end of the motor is connected to the lead screw, and the limiting rod is installed on the right outer side of the lead screw. A sliding groove is opened on the left outer side of the fixed base.

[0011] Furthermore, the vertical center line of the auxiliary rotating shaft coincides with the vertical center line of the rotating plate, and the auxiliary rotating shaft is fixedly connected to the motor.

[0012] Furthermore, the clamping assembly includes a lifting plate, a threaded seat, a return spring, and an electromagnet. The threaded seat is provided at the middle right side of the lifting plate, and a return spring is provided on the inner side of the left end of the lifting plate. The outer end of the return spring is connected to an electromagnet.

[0013] Furthermore, the threaded seat is threadedly connected to the lead screw, and the lead screw and the limiting rod are distributed in parallel.

[0014] Furthermore, the inner contour dimensions of the electromagnet are consistent with the outer contour dimensions of the test tube, and the electromagnets are symmetrically distributed along the vertical center line of the lifting plate.

[0015] Furthermore, the lifting plate is slidably connected to the slide groove, and the width of the slide groove is similar to the width of the lifting plate.

[0016] This invention provides a blood anticoagulation device for animal disease detection, which has the following beneficial effects: After the first bevel tooth rotates, it can drive the second bevel tooth to rotate through the double-headed bevel tooth. Because the second bevel tooth is connected to the rotating plate, the rotating plate can rotate accordingly after the test tube is inserted into the rotating plate. This allows the placement slot on the rotating plate surface where no test tube is inserted to move to a position that coincides with the connecting slot. This allows the operator to complete the collection of test tubes simply by repeatedly inserting the test tubes into the connecting slot after collecting animal blood, which greatly improves the collection speed. The electromagnet generates magnetic force, which allows the electromagnets at both ends of the test tube to move together. The clamping mechanism holds the test tube in place. Once the test tube is clamped, the lifting plate continues to move upwards, allowing the test tube to move upwards and pass through the connecting slot. After the test tube passes through the connecting slot, the lifting plate moves downwards again, causing the test tube to drive the active rotating wheel to rotate and the mainspring wheel to store energy. After the test tube returns to its original position, the electromagnet is de-energized and separates from the test tube, releasing the stored energy in the mainspring wheel. This allows the rotating plate to drive the test tube to rotate and bring the next test tube closer to the clamping assembly. By moving the test tube up and down and rotating during storage, this effectively prevents animal blood from clotting during transportation and affecting the detection results.

[0017] 1. During the sliding process of the test tube inside the communicating groove, it can also slide at the outer end of the rubber pad. While sliding at the outer end of the rubber pad, the test tube drives the driving wheel to roll. During this rolling process, the driving wheel stores potential energy into the inner side of the mainspring wheel. When the test tube is fully inserted into the inner side of the box, the contact between the driving wheel and the test tube is released. This causes the driving wheel to stop storing potential energy into the inner side of the mainspring wheel, and the potential energy stored in the mainspring wheel is released towards the driven wheel due to the release of contact between the driving wheel and the test tube. The driven wheel, receiving the potential energy from the mainspring wheel, can drive the belt. The wheel rotates, and the pulley, in turn, drives the first bevel gear to rotate via the transmission belt. After the first bevel gear rotates, it drives the second bevel gear to rotate via the double-headed bevel gear. Since the second bevel gear is connected to the rotating plate, the rotating plate can rotate accordingly after the test tube is inserted into it. This allows the placement slots on the rotating plate surface where no test tube is inserted to move to a position that coincides with the connecting slot. This means that after collecting animal blood, the staff only needs to repeatedly insert the test tubes into the connecting slot to complete the collection, which greatly improves the speed of test tube collection.

[0018] 2. The surface of the cover of this invention has four connecting slots. During the use of the equipment, the operator can insert test tubes containing different types of blood into different connecting slots according to the animal species. The use of the transposition component simplifies the loading of test tubes, so that the operator does not need to focus on the insertion of test tubes when classifying different types of blood. This allows the operator to concentrate on classifying and placing the blood types, which greatly reduces the probability of blood type confusion. In addition, after the test tubes are inserted into the placement slots, they are positioned by the rotating plate and protected by the box, which makes the equipment have a good protective effect on the test tubes.

[0019] 3. In the blood storage process, the present invention uses a motor to drive a lead screw to rotate. During the rotation, the lead screw drives a lifting plate to move upward through a threaded seat. After the lifting plate moves upward, it moves the test tube to a position between two electromagnets. At this time, the electromagnets generate magnetic force, which causes the electromagnets at both ends of the test tube to come together and clamp the test tube. After the test tube is clamped, the lifting plate continues to move upward, which causes the lifting plate to move the test tube upward and pass through the connecting groove. After the test tube passes through the connecting groove, the lifting plate moves downward again. At this time, the test tube drives the active rotating wheel to rotate again and causes the spring wheel to store energy. After the test tube returns to its original position, the electromagnets are de-energized and separate from the test tube. The stored energy of the spring wheel can be released, which causes the rotating plate to drive the test tube to rotate and bring the next test tube closer to the clamping assembly. By driving the test tube to move up and down and rotate during the storage process, this can effectively prevent animal blood from clotting during transportation and affecting the detection effect.

[0020] 4. After the device of the present invention is moved to the designated location, the staff removes the sealing cap, and the clamping component clamps the test tube again. At the same time, the displacement component works to move the test tube out of the connecting groove. At this time, the staff can pull the test tube out of the device. The spring wheel is a bidirectional energy storage spring wheel. During the process of pulling out the test tube, it can also drive the active rotating wheel to rotate. This allows the rotating plate to automatically move after the staff pulls out one test tube and move the next test tube to the clamping component. This can greatly improve the convenience of the device in removing test tubes. Attached Figure Description

[0021] Figure 1 This is a frontal view of the overall structure of a blood anticoagulation device for animal disease detection according to the present invention;

[0022] Figure 2 This is a top view of the cover structure of a blood anticoagulation device for animal disease detection according to the present invention.

[0023] Figure 3 This is a schematic diagram of the spring wheel structure of a blood anticoagulation device for animal disease detection according to the present invention;

[0024] Figure 4 This invention relates to a blood anticoagulation device for animal disease detection. Figure 1 Enlarged structural diagram at point A in the middle;

[0025] Figure 5 This is a top view of the first conical tooth structure of a blood anticoagulation device for animal disease detection according to the present invention;

[0026] Figure 6 This is a schematic diagram of the rotating plate structure of a blood anticoagulation device for animal disease detection according to the present invention;

[0027] Figure 7 This invention relates to a blood anticoagulation device for animal disease detection. Figure 1 Enlarged structural diagram at point B;

[0028] Figure 8 This is a schematic diagram of the clamping component structure of a blood anticoagulation device for animal disease detection according to the present invention.

[0029] In the diagram: 1. Box body; 2. Cover body; 3. Connecting groove; 4. Sealing cover; 5. Indexing assembly; 501. Driving wheel; 502. Rubber pad; 503. Spring wheel; 504. Driven wheel; 505. Pulley; 506. Transmission belt; 507. First bevel gear; 508. Double-headed bevel gear; 509. Second bevel gear; 6. Rotating plate; 7. Placement groove; 8. Test tube; 9. Displacement assembly; 901. Auxiliary shaft; 902. Motor; 903. Fixed seat; 904. Lead screw; 905. Limiting rod; 906. Slide groove; 10. Clamping assembly; 1001. Lifting plate; 1002. Threaded seat; 1003. Return spring; 1004. Electromagnet. Detailed Implementation

[0030] Please see Figure 1-8This invention provides a technical solution: a blood anticoagulation device for animal disease detection, comprising a housing 1, a displacement assembly 5, and a shift assembly 9. A cover 2 is provided on the outer top of the housing 1, and a connecting groove 3 is provided on the inner side of the cover 2. A sealing cover 4 is placed on the outer top of the cover 2. The displacement assembly 5 is located at the bottom inner side of the cover 2. The displacement assembly 5 includes a driving wheel 501, a rubber pad 502, a spring wheel 503, a driven wheel 504, a pulley 505, a transmission belt 506, a first bevel tooth 507, a double-headed bevel tooth 508, and a second bevel tooth 509. The outer surface of the driving wheel 501 is connected to the rubber pad 502, and a spring wheel is placed on the outer front part of the driving wheel 501. 503, a driven wheel 504 is provided on the outer front part of the mainspring wheel 503, and a pulley 505 is provided on the outer front part of the driven wheel 504. The outer end of the pulley 505 is connected to a drive belt 506, and the outer bottom of the drive belt 506 shows a first bevel tooth 507. The outer right side of the first bevel tooth 507 is provided with a double-headed bevel tooth 508, and the outer bottom of the double-headed bevel tooth 508 is connected to a second bevel tooth 509. A rotating plate 6 is placed on the outer bottom of the second bevel tooth 509, and a placement groove 7 is opened on the inner side of the rotating plate 6. A test tube 8 is placed on the inner side of the placement groove 7. A displacement component 9 is placed on the outer bottom of the rotating plate 6, and a clamping component 10 is provided on the left end of the displacement component 9.

[0031] Please see Figure 1-5 The connecting grooves 3 are arranged in an array at the top of the cover 2, and the vertical center line of the connecting grooves 3 coincides with the vertical center line of the placement groove 7. The pulley 505 is connected to the first bevel tooth 507 through the transmission belt 506, and the first bevel tooth 507 meshes with the double-headed bevel tooth 508. The double-headed bevel tooth 508 meshes with the second bevel tooth 509, and the second bevel tooth 509 drives the rotating plate 6 to rotate.

[0032] The specific operation is as follows: After collecting animal blood using test tube 8, medical personnel place test tube 8 into the connecting groove 3, allowing it to be inserted into the placement groove 7 inside the rotating plate 6 inside the box 1. As test tube 8 slides inside the connecting groove 3, it can also slide at the outer end of the rubber pad 502. This sliding motion drives the active rotating wheel 501 to roll. During this rolling process, the active rotating wheel 501 stores potential energy inside the spring wheel 503. Once test tube 8 is fully inserted into the box 1, the active rotating wheel 501 and the test tube... The disengagement of the tube 8 causes the driving wheel 501 to stop storing potential energy into the inner side of the mainspring wheel 503. The potential energy stored in the mainspring wheel 503 is released towards the driven wheel 504 as the driving wheel 501 disengages from the tube 8. Upon receiving the potential energy from the mainspring wheel 503, the driven wheel 504 drives the pulley 505 to rotate. During rotation, the pulley 505 drives the first bevel tooth 507 to rotate via the transmission belt 506. After rotation, the first bevel tooth 507 drives the second bevel tooth 508 via the double-headed bevel tooth 508. The device rotates at 09. Because the second conical tooth 509 is connected to the rotating plate 6, the rotating plate 6 can rotate accordingly after the test tube 8 is inserted into it. This allows the placement groove 7 on the surface of the rotating plate 6 where the test tube 8 is not inserted to move to a position that coincides with the connecting groove 3. This means that after collecting animal blood, the operator only needs to repeatedly insert the test tube 8 into the connecting groove 3 to complete the collection, which greatly improves the collection speed of the test tube 8. The surface of the cover 2 has four connecting grooves 3. During the use of the equipment, the operator can... For different types of animals, test tubes 8 containing different types of blood are inserted into different connecting slots 3 for placement. The use of the transposition component 5 simplifies the loading of test tubes 8, allowing staff to focus on the insertion of test tubes 8 when classifying different types of blood. This greatly reduces the probability of blood type confusion. In addition, after the test tubes 8 are inserted into the placement slots 7, they are positioned by the rotating plate 6 and protected by the box 1, which provides good protection for the test tubes 8.

[0033] Please see Figure 6-8The displacement assembly 9 includes an auxiliary rotating shaft 901, a motor 902, a fixed seat 903, a lead screw 904, a limit rod 905, and a slide groove 906. The motor 902 is connected to the bottom outer side of the auxiliary rotating shaft 901, and the fixed seat 903 is placed on the bottom outer side of the motor 902. The output end of the motor 902 is connected to the lead screw 904, and the limit rod 905 is placed on the right outer side of the lead screw 904. The slide groove 906 is opened on the left outer side of the fixed seat 903. The vertical center line of the auxiliary rotating shaft 901 coincides with the vertical center line of the rotating plate 6, and the auxiliary rotating shaft 901 is fixedly connected to the motor 902. The clamping assembly 10 includes a lifting plate 1001 and a threaded seat 1002. The lifting plate 1001 has a return spring 1003 and an electromagnet 1004. A threaded seat 1002 is provided at the middle right side of the lifting plate 1001, and a return spring 1003 is provided at the inner left side of the lifting plate 1001. The outer end of the return spring 1003 is connected to the electromagnet 1004. The threaded seat 1002 is threadedly connected to the lead screw 904, and the lead screw 904 and the limit rod 905 are distributed in parallel. The inner contour dimension of the electromagnet 1004 is consistent with the outer contour dimension of the test tube 8, and the electromagnet 1004 is symmetrically distributed along the vertical center line of the lifting plate 1001. The lifting plate 1001 is slidably connected to the slide groove 906, and the width of the slide groove 906 is similar to the width of the lifting plate 1001.

[0034] The specific operation is as follows: After the test tube 8 is stored, the staff can place a sealing cap 4 on the top of the cap 2 to cover the connecting groove 3. During the blood storage process, the motor 902 drives the lead screw 904 to rotate. During the rotation of the lead screw 904, the lifting plate 1001 is moved upward through the threaded seat 1002. After the lifting plate 1001 moves upward, it can move the test tube 8 to the position between the two electromagnets 1004. At this time, the electromagnets 1004 work to generate magnetic force, which makes the test tube 8... The electromagnets 1004 at both ends can come together and clamp the test tube 8. After the test tube 8 is clamped, the lifting plate 1001 continues to move upward, which allows the lifting plate 1001 to move the test tube 8 upward and pass through the connecting groove 3. After the test tube 8 passes through the connecting groove 3, the lifting plate 1001 moves downward again. At this time, the test tube 8 can drive the driving wheel 501 to rotate again and cause the spring wheel 503 to store energy. After the test tube 8 returns to its original position, the electromagnet 1004 is de-energized and separates from the test tube 8, and the spring wheel 503 stores energy. The device can release energy, which allows the rotating plate 6 to rotate the test tube 8 and bring the next test tube 8 closer to the clamping component 10. By moving the test tube 8 up and down and rotating it during storage, it can effectively prevent animal blood from clotting during transportation and affecting the test results. In addition, because the sealing cover 4 seals the cover 2 during the movement of the device, it can ensure that the test tube 8 does not come into contact with the outside when it is moved out of the connecting groove 3. After the device is moved to the designated location, the staff removes the sealing cover 4, and the clamping component 10 clamps the test tube again. At the same time, the displacement component 9 works to move the test tube 8 out of the connecting groove 3. At this time, the staff can pull the test tube 8 out of the device. The spring wheel 503 is a bidirectional energy storage spring wheel 503. During the process of pulling out the test tube 8, it can also drive the active rotating wheel 501 to rotate. This allows the rotating plate 6 to automatically move after the staff pulls out one test tube 8 and move the next test tube 8 to the clamping component 10. This can greatly improve the convenience of the device in removing the test tube 8.

[0035] In summary, this blood anticoagulation device for animal disease detection, when in use, firstly, after medical personnel collect animal blood using test tube 8, they place test tube 8 into the connecting groove 3, allowing it to be inserted into the placement groove 7 inside the rotating plate 6 inside the box 1. During the sliding process inside the connecting groove 3, test tube 8 can slide at the outer end of the rubber pad 502. This sliding motion drives the active rotating wheel 501 to rotate, storing potential energy into the inner side of the spring wheel 503. When test tube 8 is fully inserted into the box 1, the contact between the active rotating wheel 501 and test tube 8 is released, causing the active rotating wheel 501 to stop storing potential energy into the inner side of the spring wheel 503. Furthermore, the potential energy stored in the spring wheel 503 is released due to the dissolution of the contact between the active rotating wheel 501 and test tube 8. In addition to releasing energy towards the driven wheel 504, the driven wheel 504, after receiving potential energy from the mainspring wheel 503, can drive the pulley 505 to rotate. During the rotation of the pulley 505, it can drive the first bevel tooth 507 to rotate through the transmission belt 506. After the first bevel tooth 507 rotates, it can drive the second bevel tooth 509 to rotate through the double-headed bevel tooth 508. Since the second bevel tooth 509 is connected to the rotating plate 6, the rotating plate 6 can rotate accordingly after the test tube 8 is inserted into it. This allows the placement groove 7 on the surface of the rotating plate 6 where the test tube 8 is not inserted to move to a position that coincides with the connecting groove 3. This allows the staff to complete the collection of the test tube 8 by simply inserting the test tube 8 into the connecting groove 3 after the animal blood collection is completed, which can greatly improve the collection speed of the test tube 8.

[0036] Then, four connecting slots 3 are opened on the surface of the cover 2. During the use of the equipment, the staff can insert test tubes 8 containing different types of blood into different connecting slots 3 according to the animal species. Because the use of the rotating component 5 simplifies the loading of test tubes 8, the staff does not need to focus on the insertion of test tubes 8 when classifying different types of blood. This allows the staff to concentrate on the classification and placement of blood types, which can greatly reduce the probability of blood type confusion. In addition, after the test tubes 8 are inserted into the placement slots 7, they can be positioned by the rotating plate 6 and protected by the box 1, which makes the equipment have a good protective effect on the test tubes 8.

[0037] After the test tube 8 is stored, the staff can place a sealing cap 4 on the top of the cap 2 to cover the connecting groove 3. During the blood storage process, the motor 902 drives the lead screw 904 to rotate. During the rotation of the lead screw 904, the lifting plate 1001 moves upward through the threaded seat 1002. After the lifting plate 1001 moves upward, it moves the test tube 8 to the position between the two electromagnets 1004. At this time, the electromagnets 1004 work and generate magnetic force, which allows the electromagnets 1004 at both ends of the test tube 8 to come together and clamp the test tube 8. After the test tube 8 is clamped, the lifting plate 1001 continues to move upward, which allows the lifting plate 1001 to move the test tube 8 upward together and pass through the connecting groove 3. After the test tube 8 passes through the connecting groove 3, the lifting plate 1001 moves down again. At this time, the test tube 8 can drive the active rotating wheel 501 to rotate again and cause the spring wheel 503 to store energy. After the test tube 8 returns to its original position, the electromagnet 1004 is de-energized and separates from the test tube 8. The stored energy of the spring wheel 503 can be released, which allows the rotating plate 6 to drive the test tube 8 to rotate and bring the next test tube 8 closer to the clamping assembly 10. By driving the test tube 8 to move up and down and rotate during the storage process, it can effectively prevent animal blood from clotting during transportation and affecting the detection effect. In addition, because the sealing cover 4 seals the cover 2 during the movement of the equipment, it can ensure that the test tube 8 does not come into contact with the outside world when it is moved out of the connecting groove 3.

[0038] Finally, after the equipment is moved to the designated location, the staff removes the sealing cap 4, and the clamping component 10 clamps the test tube 8 again. At the same time, the displacement component 9 works to move the test tube 8 out of the connecting groove 3. At this time, the staff can pull the test tube 8 out of the equipment. The spring wheel 503 is a bidirectional energy storage spring wheel 503. During the process of pulling out the test tube 8, it can also drive the active rotating wheel 501 to rotate. This allows the rotating plate 6 to automatically move after the staff pulls out one test tube 8, and move the next test tube 8 to the clamping component 10. This can greatly improve the convenience of the equipment in removing the test tube 8.

[0039] The embodiments of the present invention are given for illustrative and descriptive purposes only, and are not intended to be exhaustive or to limit the invention to the forms disclosed. Many modifications and variations will be apparent to those skilled in the art. The embodiments were chosen and described in order to better illustrate the principles and practical application of the invention, and to enable those skilled in the art to understand the invention and to design various embodiments with various modifications suitable for a particular purpose.

Claims

1. A blood anticoagulation device for animal disease detection, characterized in that, The assembly includes a housing (1), a rotation component (5), and a displacement component (9). A cover (2) is provided on the outer top of the housing (1), and a connecting groove (3) is provided on the inner side of the cover (2). A sealing cover (4) is placed on the outer top of the cover (2). The rotation component (5) is located at the bottom inner side of the cover (2). The rotation component (5) includes a driving wheel (501), a rubber pad (502), a spring wheel (503), a driven wheel (504), a pulley (505), a transmission belt (506), a first bevel gear (507), a double-headed bevel gear (508), and a second bevel gear (509). A rubber pad (502) is connected to the outer surface of the driving wheel (501), and a spring wheel (503) is mounted on the outer front part of the driving wheel (501). A driven wheel (504) is provided on the outer front part of the spring wheel (503), and a pulley (505) is provided on the outer front part of the driven wheel (504). A drive belt (506) is connected to the outer end of the pulley (505), and a first bevel tooth (507) is displayed on the outer bottom of the drive belt (506). A double-headed bevel tooth (508) is provided on the outer right side of the first bevel tooth (507), and a second bevel tooth (508) is connected to the outer bottom of the double-headed bevel tooth (508). The second bevel tooth (509) has a rotating plate (6) on its bottom outer side, and a mounting groove (7) is provided on the inner side of the rotating plate (6). A test tube (8) is placed on the inner side of the mounting groove (7). The displacement component (9) is placed on the bottom outer side of the rotating plate (6), and a clamping component (10) is provided on the left end of the displacement component (9). The clamping component (10) includes a lifting plate (1001), a threaded seat (1002), a return spring (1003), and an electromagnet (1004). A threaded seat (1002) is provided on the middle right side of the lifting plate (1001), and the lifting plate (1002) has a mounting groove (7) on its inner side, and a test tube (8) is placed on the inner side of the mounting groove (7). The displacement component (9) is placed on the bottom outer side of the rotating plate (6), and a clamping component (1004) is provided on the left end of the displacement component (9). 1) A return spring (1003) is provided on the inner side of the left end. An electromagnet (1004) is connected to the outer end of the return spring (1003). The threaded seat (1002) is threadedly connected to the lead screw (904). The lead screw (904) and the limit rod (905) are distributed in parallel. The inner contour dimension of the electromagnet (1004) is consistent with the outer contour dimension of the test tube (8). The electromagnet (1004) is symmetrically distributed along the vertical center line of the lifting plate (1001). The lifting plate (1001) is slidably connected to the slide groove (906). The width of the slide groove (906) is similar to the width of the lifting plate (1001).

2. The blood anticoagulation device for animal disease detection according to claim 1, characterized in that, The connecting grooves (3) are arranged in an array at the top of the cover (2), and the vertical center line of the connecting grooves (3) coincides with the vertical center line of the placement groove (7).

3. The blood anticoagulation device for animal disease detection according to claim 1, characterized in that, The pulley (505) is connected to the first bevel tooth (507) via the transmission belt (506), and the first bevel tooth (507) meshes with the double-headed bevel tooth (508).

4. The blood anticoagulation device for animal disease detection according to claim 1, characterized in that, The double-headed bevel tooth (508) meshes with the second bevel tooth (509), and the second bevel tooth (509) drives the rotating plate (6) to rotate.

5. The blood anticoagulation device for animal disease detection according to claim 1, characterized in that, The displacement assembly (9) includes an auxiliary rotating shaft (901), a motor (902), a fixed seat (903), a lead screw (904), a limit rod (905), and a slide groove (906). The motor (902) is connected to the bottom outer side of the auxiliary rotating shaft (901), and the fixed seat (903) is placed on the bottom outer side of the motor (902). The output end of the motor (902) is connected to the lead screw (904), and the limit rod (905) is placed on the right outer side of the lead screw (904). The slide groove (906) is opened on the left outer side of the fixed seat (903).

6. The blood anticoagulation device for animal disease detection according to claim 5, characterized in that, The vertical center line of the auxiliary rotating shaft (901) coincides with the vertical center line of the rotating plate (6), and the auxiliary rotating shaft (901) is fixedly connected to the motor (902).

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