Continuous nuclear track membrane detection device

Abstract

The utility model discloses a continuous type nuclear track membrane detection device, relates to nuclear track membrane detection technical field, the device includes conveyer belt and second bracing frame, conveyer belt both ends are equipped with driving roller and transmission roller respectively, said second bracing frame both ends are equipped with feeding roller and wind-up roller respectively, said second bracing frame both ends are equipped with driving subassembly, and the driving subassembly is equipped with driving roller and transmission roller respectively. According to the nuclear track membrane cutting device, through the arrangement of the fixing mold, the bearing plate and the ejector rod, when the nuclear track membrane cutting component cuts a membrane belt, a nuclear track membrane can conveniently fall to the upper end of the bearing plate, the nuclear track membrane can conveniently fall to the upper end of the bearing plate, the detection assembly is arranged on the upper portion of one end of the conveying belt, and the detection assembly is arranged on the upper portion of the middle of the second supporting frame. And meanwhile, the nuclear track membrane detection component drives the mounting friction wheel to rotate while detecting the nuclear track membrane, so that continuous detection of the nuclear track membrane detection component is facilitated.

Description

Technical Field

[0001] The utility model relates to the technical field of nuclear pore membrane detection, in particular to a continuous nuclear pore membrane detection device. Background Technique

[0002] Nuclear pore membranes are mainly formed by irradiating plastic films with heavy ions to form nano-scale micropores, and then etching them with special chemical liquids to form ventilation holes. Due to their numerous advantages, nuclear pore membrane materials are widely used in the fields of electronics, biology, food, medicine, and chemical engineering. In the food field, nuclear pore membranes can be used to increase the storage time of fresh produce. Among them, the nuclear pore membrane modified atmosphere fresh-keeping box is a self-generating modified atmosphere fresh-keeping box, which is mainly used for the transportation of live aquatic products and fruits and vegetables. It can also be applied in storage warehouses for the off-peak sales of some fruits and vegetables. It is convenient to use, has relatively low costs compared to traditional packaging and transportation, can also save the use of ice bags, replace some foam boxes, and reduce white pollution.

[0003] When producing nuclear pore membranes, it is necessary to first produce a film strip, wind the film strip on a take-up roll, and then cut and use it. After cutting, it is necessary to detect the cut nuclear pore membrane to prevent the film strip from having defects during production, which may affect the performance of the cut nuclear pore membrane during use. When detecting nuclear pore membranes, most of the existing detection methods are to transfer multiple nuclear pore membranes to the detection location for detection through manipulators or other means, which wastes a lot of time during the transfer process. Moreover, it also takes time to remove the nuclear pore membranes from the detector after the detection is completed. Therefore, in actual use, it is time-consuming and laborious, affecting the detection efficiency of nuclear pore membranes.

[0004] Based on this, a continuous nuclear pore membrane detection device is now provided to eliminate the drawbacks of existing devices. Content of the Utility Model

[0005] The purpose of the utility model is to provide a continuous nuclear pore membrane detection device to solve the problems of consuming a lot of time and being not convenient for continuous detection when detecting nuclear pore membranes in the background technique.

[0006] To achieve the above purpose, the utility model provides the following technical solutions:

[0007] A continuous nuclear pore membrane detection device, comprising a conveyor belt and a second support frame. Both ends of the conveyor belt are respectively provided with a driving roller and a transmission roller. The rotating shafts at both ends of the driving roller and the transmission roller are respectively arranged in the mounting holes at both ends of two connecting fixing plates. A plurality of first support frames are fixedly arranged at the bottom ends of the two connecting fixing plates. Both ends of the second support frame are respectively provided with a feeding roller and a winding roller. A membrane strip is wound on the feeding roller. Driving components for driving the feeding roller and the winding roller to rotate are arranged at both ends of the second support frame. A cutting component for cutting the membrane strip is arranged above the middle of the second support frame. A detection component for detecting the nuclear pore membrane is arranged above one end of the conveyor belt. A carrying mechanism for carrying and transporting the cut nuclear pore membrane is arranged on the conveyor belt.

[0008] Based on the above technical solutions, the present utility model also provides the following optional technical solutions:

[0009] In an optional solution: The driving component includes a driven friction wheel. Driven friction wheels are fixedly arranged on the rotating shafts at one ends of the feeding roller and the winding roller. An active friction wheel is frictionally arranged on the driven friction wheel. The active friction wheel is fixedly arranged at the output end of a motor. The motor is fixedly arranged at the upper end of a support plate. The support plate is fixedly arranged on one side of the second support frame.

[0010] In an optional solution: The cutting component includes a nuclear pore membrane cutting part. The upper ends of the nuclear pore membrane cutting part are respectively fixedly connected to the output ends of two first hydraulic cylinders. The two first hydraulic cylinders are respectively fixedly arranged in two mounting holes at the upper end of a first mounting frame. The first mounting frame is fixedly arranged on the second support frame. A first control part is fixedly arranged at the upper end of the first mounting frame. The motor and the first hydraulic cylinders are electrically connected to the first control part.

[0011] In an optional solution: The detection component includes a nuclear pore membrane detection part. The nuclear pore membrane detection part is fixedly connected to the output end of a second hydraulic cylinder. The second hydraulic cylinder is fixedly arranged in a mounting hole at the upper end of a second mounting frame. The second mounting frame is fixedly arranged on one side of the two connecting fixing plates. A second control part is fixedly arranged at the upper end of the second mounting frame. An alarm lamp is arranged on the second control part. The nuclear pore membrane detection part is electrically connected to the second control part.

[0012] In an alternative embodiment: The carrying mechanism includes several groups of fixing structures, and several groups of the fixing structures are arranged in an equidistant array on the conveyor belt. One group of the fixing structures consists of two symmetrically arranged fixing molds. The bottom ends of the fixing molds are both fixedly provided with fixing plates, and the fixing plates are fixedly connected to the conveyor belt. The bottom ends of the fixing molds are symmetrically provided with auxiliary support rods, and the auxiliary support rods are arranged in a T shape. A circular perforation is provided at the upper end of the fixing mold, and a limiting frame is fixedly provided at one end of the circular perforation. A bearing plate is closely arranged on the upper end of the limiting frame, and a top rod is fixedly provided at the bottom end of the bearing plate. Perforations are provided at positions corresponding to the top rods on the conveyor belt. Guide rods are symmetrically arranged at positions corresponding to the positions below the nuclear pore membrane cutting component between the two connecting fixing plates. The two guide rods are respectively fixedly arranged on one side of the two connecting fixing plates, and the two guide rods are respectively aligned with two rows of fixing molds. One end of the driving roller is provided with a linkage assembly for driving the conveyor belt to rotate.

[0013] In an alternative embodiment: The linkage assembly includes two mounting friction wheels, and the two mounting friction wheels are respectively rotatably arranged on the rotating shafts at both ends of the driving roller. Friction plates are frictionally arranged on the mounting friction wheels, and the friction plates are respectively fixedly arranged at both ends of the third mounting frame. The third mounting frame is fixedly arranged on one side of the nuclear pore membrane detection component. A number of ratchet teeth are fixedly arranged inside the mounting friction wheel, and pawls are provided at positions corresponding to the ratchet teeth on the rotating shaft of the driving roller. Rotating plates are rotatably arranged on the rotating shafts at both ends of the pawl. The rotating plates are fixedly arranged on the rotating shaft of the driving roller. A stop plate is fixedly arranged at a position corresponding to one side of the pawl on the rotating shaft of the driving roller. A fixed tube is fixedly arranged at the coaxial position of the rotating shaft of one end of the rotating plate and the pawl. A torsion spring is fixedly arranged between the inside of the fixed tube and the rotating roller at one end of the pawl.

[0014] In an alternative embodiment: Ball bearings are provided at one ends of the top rods, and limiting plates are symmetrically arranged at one ends of the top rods.

[0015] In an alternative embodiment: A guide plate is fixedly arranged at a position corresponding to one end of the conveyor belt on one of the first support frames, and the guide plate is arranged obliquely.

[0016] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0017] In the present utility model, a number of fixed molds are arranged on a conveyor belt. A bearing plate is slidably arranged in a circular through-hole at the upper end of the fixed mold. A push rod is fixedly arranged at the bottom end of the bearing plate. When a nuclear pore membrane cutting component cuts a membrane strip, the push rod and a guide rod are used in cooperation, so that it is convenient for the nuclear pore membrane to fall on the upper end of the bearing plate. At the same time, while a nuclear pore membrane detection component detects the nuclear pore membrane, it drives an installation friction wheel to rotate. After the nuclear pore membrane detection component finishes detection, the nuclear pore membrane that has not been detected moves to the lower part of the detection end of the nuclear pore membrane detection component, so that it is convenient for the nuclear pore membrane detection component to perform continuous detection. At the same time, since the bearing plate is slidably arranged in the circular through-hole at the upper end of the fixed mold, when the fixed mold rotates to the lower part of the conveyor belt, under the action of gravity, the bearing plate slides in the circular through-hole at the upper end of the fixed mold, thereby facilitating the pushing out of the nuclear pore membrane and facilitating the collection of the nuclear pore membrane, thus increasing the practicability of the nuclear pore membrane detection device. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 is a schematic structural diagram of the present utility model.

[0019] Figure 2 is a schematic structural diagram of the present utility model.

[0020] Figure 3 is a schematic structural diagram of the second support frame of the present utility model.

[0021] Figure 4 is a schematic installation diagram of the guide rod of the present utility model.

[0022] Figure 5 is a schematic installation diagram of the material guide plate of the present utility model.

[0023] Figure 6 is a schematic structural diagram of the bearing plate and the limit frame of the present utility model.

[0024] Figure 7 is a schematic internal structure diagram of the installation friction wheel of the present utility model.

[0025] NOTES ON REFERENCE NUMERALS: 11 conveyor belt, 12 fixed mold, 13 fixed plate, 14 auxiliary support rod, 15 bearing plate, 16 push rod, 17 limit frame, 18 guide rod, 19 connecting fixed plate, 20 first support frame, 21 membrane strip, 22 second support frame, 23 motor, 24 driven friction wheel, 25 nuclear pore membrane cutting component, 26 first hydraulic cylinder, 27 nuclear pore membrane detection component, 28 second hydraulic cylinder, 29 second control component, 30 alarm lamp, 31 installation friction wheel, 32 ratchet tooth, 33 ratchet pawl, 34 stop plate, 35 fixed pipe, 36 friction plate, 37 material guide plate. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0026] In order to make the objectives, technical solutions and advantages of the present utility model more clear and understandable, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments.

[0027] Embodiment 1

[0028] In one embodiment, as Figures 1-7 shown, a continuous nuclear pore membrane detection device includes a conveyor belt 11 and a second support frame 22. Both ends of the conveyor belt 11 are respectively provided with a driving roller and a driving roller. The rotating shafts at both ends of the driving roller and the driving roller are respectively arranged in the mounting holes at both ends of two connecting fixing plates 19. A plurality of first support frames 20 are fixedly arranged at the bottom ends of the two connecting fixing plates 19. Both ends of the second support frame 22 are respectively provided with a feeding roller and a winding roller. A film strip 21 is wound on the feeding roller. Driving components for driving the feeding roller and the winding roller to rotate are arranged at both ends of the second support frame 22. A cutting component for cutting the film strip 21 is arranged above the middle of the second support frame 22. A detection component for detecting the nuclear pore membrane is arranged above one end of the conveyor belt 11. A carrying mechanism for carrying and transporting the cut nuclear pore membrane is arranged on the conveyor belt 11. The carrying mechanism facilitates continuous detection of the cut nuclear pore membrane;

[0029] The driving component includes a driven friction wheel 24. Driven friction wheels 24 are fixedly arranged on the rotating shafts at one ends of the feeding roller and the winding roller. An active friction wheel is frictionally arranged on the driven friction wheel 24. The active friction wheel is fixedly arranged on the output end of a motor 23. The motor 23 is fixedly arranged on the upper end of a support plate. The support plate is fixedly arranged on one side of the second support frame 22. During use, when the film strip 21 needs to be cut, the two motors 23 are started. The output end of the motor 23 drives the active friction wheel to rotate. The active friction wheel drives the feeding roller and the winding roller to rotate through the driven friction wheel 24, so that the film strip 21 wound on the feeding roller unfolds, and the winding roller can wind the cut film strip 21.

[0030] The cutting component includes a nuclear pore membrane cutting member 25. The upper end of the nuclear pore membrane cutting member 25 is fixedly connected to the output ends of two first hydraulic cylinders 26 respectively. The two first hydraulic cylinders 26 are respectively fixedly arranged in two mounting holes at the upper end of the first mounting frame. The first mounting frame is fixedly arranged on the second support frame 22. A first control component is fixedly arranged at the upper end of the first mounting frame. The motor 23 and the first hydraulic cylinders 26 are electrically connected to the first control component. During use, when it is necessary to cut the film strip 21, the first control component controls the motor 23 and the first hydraulic cylinders 26 to start. When the uncut film strip 21 moves below the nuclear pore membrane cutting member 25, the motor 23 stops rotating. Subsequently, the output end of the first hydraulic cylinder 26 drives the nuclear pore membrane cutting member 25 to move, so that the nuclear pore membrane cutting member 25 cuts the film strip 21. It should be noted that both the nuclear pore membrane cutting member 25 and the first control component here are existing components and will not be elaborated here.

[0031] The detection component includes a nuclear pore membrane detection member 27. The nuclear pore membrane detection member 27 is fixedly connected to the output end of the second hydraulic cylinder 28. The second hydraulic cylinder 28 is fixedly arranged in the mounting hole at the upper end of the second mounting frame. The second mounting frame is fixedly arranged on one side of two connecting fixing plates 19. A second control component 29 is fixedly arranged at the upper end of the second mounting frame. An alarm lamp 30 is arranged on the second control component 29. The nuclear pore membrane detection member 27 is electrically connected to the second control component 29. During use, when it is necessary to detect the nuclear pore membrane, the second control component 29 controls the second hydraulic cylinder 28 to start. The output end of the second hydraulic cylinder 28 drives the nuclear pore membrane detection member 27 to move, so that the nuclear pore membrane detection member 27 detects the nuclear pore membrane. When detecting unqualified products, the second control component 29 controls the alarm lamp 30 to light up, so as to remind the staff to remove the unqualified products. It should be noted that both the nuclear pore membrane detection member 27 and the second control component 29 here are existing components and will not be elaborated here.

[0032] The bearing mechanism includes several groups of fixing structures, and several groups of the fixing structures are arranged in an equidistant array on the conveyor belt 11. One group of the fixing structures consists of two symmetrically arranged fixing dies 12. The bottom ends of the fixing dies 12 are both fixedly provided with fixing plates 13, and the fixing plates 13 are fixedly connected to the conveyor belt 11. The bottom ends of the fixing dies 12 are both symmetrically provided with auxiliary support rods 14, and the auxiliary support rods 14 are arranged in a T shape. A circular perforation is provided at the upper end of the fixing die 12, and a limiting frame 17 is fixedly provided at one end of the circular perforation. A bearing plate 15 is closely arranged on the upper end of the limiting frame 17, and a top rod 16 is fixedly provided at the bottom end of the bearing plate 15. Perforations are provided at positions corresponding to the top rod 16 on the conveyor belt 11. Guide rods 18 are symmetrically arranged at positions corresponding to the positions below the nuclear pore membrane cutting component 25 between the two connecting fixing plates 19. The two guide rods 18 are respectively fixedly arranged on one side of the two connecting fixing plates 19, and the two guide rods 18 are respectively aligned with two columns of fixing dies 12. A linkage assembly for driving the conveyor belt 11 to rotate is provided at one end of the driving roller. During use, when the nuclear pore membrane cutting component 25 cuts the film strip 21, the conveyor belt 11 is rotated through the linkage assembly, and the conveyor belt 11 drives several fixing dies 12 to move. When the top rod 16 moves along with the conveyor belt 11 and one end of the top rod 16 comes into contact with the inclined surface at one end of the guide rod 18, the guide rod 18 guides the top rod 16 at one end. Along with the movement of the conveyor belt 11, the top rod 16 pushes the bearing plate 15 to move. When one end of the top rod 16 is closely attached to the upper end of the guide rod 18, the top rod 16 stops moving. When several fixing dies 12 on the upper end of the conveyor belt 11 are aligned with the cutting end of the nuclear pore membrane cutting component 25, the conveyor belt 11 stops moving. Subsequently, the nuclear pore membrane cutting component 25 cuts the film strip 21, so that several nuclear pore membranes fall onto the upper ends of the bearing plates 15 inside several fixing dies 12. Since the nuclear pore membrane cutting component 25 stops cutting multiple nuclear pore membranes, and the nuclear pore membrane detection component 27 only detects the nuclear pore membranes inside one group of fixing structures at the same time, when the nuclear pore membrane detection component 27 finishes detecting the nuclear pore membranes cut by the nuclear pore membrane cutting component 25 at one time, the nuclear pore membrane cutting component 25 cuts again. When the nuclear pore membrane moves to the lower part of the nuclear pore membrane detection component 27 along with the conveyor belt 11, the nuclear pore membrane detection component 27 detects the nuclear pore membrane. When the detected nuclear pore membrane moves to one end of the conveyor belt 11 along with the fixing die 12 and tilts, the nuclear pore membranes on the upper end of the bearing plate 15 fall off, so as to collect the nuclear pore membranes.

[0033] The linkage assembly includes two mounted friction wheels 31, which are rotatably mounted on the rotating shafts at both ends of the driving roller, and friction plates 36 are frictionally mounted on the mounted friction wheels 31, which are respectively fixed on both ends of the third mounting frame, and the third mounting frame is fixed on one side of the nuclear pore membrane detection component 27. A plurality of ratchet teeth 32 are fixedly mounted inside the mounted friction wheel 31, and a pawl 33 is provided on the rotating shaft of the driving roller at a position corresponding to the position of the ratchet teeth 32, and rotating plates are rotatably mounted on the rotating shafts at both ends of the pawl 33, and the rotating plates are fixed on the rotating shaft of the driving roller, and a stopper plate 34 is fixed on the rotating shaft of the driving roller at a position corresponding to one side of the pawl 33, and a fixed tube 35 is fixed on one side of the rotating plate at a position coaxial with the rotating shaft at one end of the pawl 33, and a torsion spring is fixed inside the fixed tube 35 and between the rotating roller at one end of the pawl 33, and when in use, when the nuclear pore membrane detection component 27 is lowered for detection, the nuclear pore membrane detection component 27 is driven by the third mounting frame The two friction plates 36 move, and the friction plates 36 and the installed friction wheel 31 rub against each other to make the installed friction wheel 31 rotate. When the installed friction wheel 31 rotates, the ratchet 33 is driven to rotate by a plurality of ratchet teeth 32. Since there is no stop plate 34 on one side of the ratchet 33, the driving roller does not rotate with the installed friction wheel 31. When the nuclear pore membrane detection component 27 detects the nuclear pore membrane, the friction plate 36 is separated from the installed friction wheel 31. After the nuclear pore membrane detection component 27 completes the detection, it moves in the opposite direction. When the detection end of the nuclear pore membrane detection component 27 is completely separated from the fixed mold 12, the friction plate 36 contacts the installed friction wheel 31 again to make the installed friction wheel 31 rotate. At this time, since there is a stop plate 34 on one side of the ratchet 33, the installed friction wheel 31 drives the driving roller to rotate, so that the driving roller cooperates with the transmission roller to drive the conveyor belt 11 to rotate. When the nuclear pore membrane detection component 27 returns to the initial position and stops, the fixed mold 12 that has not been detected moves to the bottom of the nuclear pore membrane detection component 27 for continuous detection.

[0034] One end of the push rod 16 is provided with a ball, and one end of the push rod 16 is symmetrically provided with a limit plate. When in use, the ball at one end of the push rod 16 is convenient to reduce the wear between one end of the push rod 16 and the guide rod 18, and the limit plate is convenient to prevent the load-bearing plate 15 from detaching from the fixed mold 12.

[0035] A guide plate 37 is fixedly provided on the first support frame 20 at a position corresponding to one end of the conveyor belt 11. The guide plate 37 is tilted, so that the nuclear pore membrane after detection can fall to the inner side of the guide plate 37 when in use, so that the nuclear pore membrane can be collected easily.

[0036] The above embodiments disclose a continuous nuclear pore membrane detection device. When it is necessary to cut the film strip 21, a plurality of fixed molds 12 are aligned with the cutting end of the nuclear pore membrane cutting component 25. The first control component controls the motor 23 and the first hydraulic cylinder 26 to start. When the uncut film strip 21 moves below the nuclear pore membrane cutting component 25, the motor 23 stops rotating. Subsequently, the output end of the first hydraulic cylinder 26 drives the nuclear pore membrane cutting component 25 to move, so that the nuclear pore membrane cutting component 25 cuts the film strip 21, and a plurality of nuclear pore membranes fall onto the upper end of the bearing plate 15 inside a plurality of fixed molds 12. When the nuclear pore membrane follows the conveyor belt 11 and moves below the nuclear pore membrane detection component 27, the nuclear pore membrane detection component 27 detects the nuclear pore membrane. When detecting unqualified products, the second control component 29 controls the alarm lamp 30 to light up, so as to remind the staff to remove the unqualified products. After the nuclear pore membrane detection component 27 finishes the detection, it moves in the opposite direction. When the detection end of the nuclear pore membrane detection component 27 completely disengages from the inside of the fixed mold 12, the friction plate 36 contacts the mounting friction wheel 31 again, so that the mounting friction wheel 31 rotates. At this time, since a stop plate 34 is provided on one side of the pawl 33, the mounting friction wheel 31 drives the driving roller to rotate, so that the driving roller and the transmission roller cooperate to drive the conveyor belt 11 to rotate. When the nuclear pore membrane detection component 27 returns to the initial position and stops, the fixed mold 12 that has not been detected moves below the nuclear pore membrane detection component 27 for continuous detection. The detected nuclear pore membrane follows the fixed mold 12 and moves to one end of the conveyor belt 11 and tilts and falls inside the guide plate 37, which facilitates the collection of the nuclear pore membrane.

[0037] The above is only the specific implementation manner of the present application, but the protection scope of the present application is not limited thereto. Any person skilled in the art within the technical scope disclosed by the present application can easily think of changes or substitutions, which should all be covered by the protection scope of the present application. Therefore, the protection scope of the present application should be subject to the protection scope of the claims.

Claims

1. A continuous nuclear pore membrane detection device, comprising a conveyor belt (11) and a second support frame (22), wherein a driving roller and a transmission roller are respectively arranged at both ends of the conveyor belt (11), and the rotating shafts at both ends of the driving roller and the transmission roller are respectively arranged in the mounting holes at both ends of two connecting and fixing plates (19), and a plurality of first support frames (20) are fixedly arranged at the bottom ends of the two connecting and fixing plates (19), characterized in that: A feeding roller and a winding roller are respectively provided at both ends of the second support frame (22), a film strip (21) is wound on the feeding roller, a driving assembly for driving the feeding roller and the winding roller to rotate is provided at both ends of the second support frame (22), a cutting assembly for cutting the film strip (21) is provided above the middle of the second support frame (22), a detection assembly for detecting the nuclear pore membrane is provided above one end of the conveyor belt (11), and a bearing mechanism for carrying and transmitting the cut nuclear pore membrane is provided on the conveyor belt (11).

2. A continuous nuclear pore membrane detection device according to claim 1, characterized in that: The driving assembly comprises a driven friction wheel (24), a driven friction wheel (24) is fixedly provided on the rotating shafts at one end of the unwinding roller and the winding roller, an active friction wheel is frictionally provided on the driven friction wheel (24), the active friction wheel is fixedly provided on the output end of the motor (23), the motor (23) is fixedly provided on the upper end of the support plate, and the support plate is fixedly provided on one side of the second support frame (22).

3. A continuous nuclear pore membrane detection device according to claim 2, characterized in that: The cutting assembly comprises a nuclear pore membrane cutting component (25), the upper end of the nuclear pore membrane cutting component (25) is fixedly connected to the output ends of two first hydraulic cylinders (26), the two first hydraulic cylinders (26) are respectively fixedly arranged in two mounting holes at the upper end of a first mounting frame, the first mounting frame is fixedly arranged on a second support frame (22), a first control component is fixedly arranged at the upper end of the first mounting frame, and the motor (23) and the first hydraulic cylinder (26) are evenly electrically connected to the first control component.

4. A continuous nuclear pore membrane detection device according to claim 3, characterized in that: The detection assembly comprises a nuclear pore membrane detection component (27), the nuclear pore membrane detection component (27) is fixedly connected to the output end of a second hydraulic cylinder (28), the second hydraulic cylinder (28) is fixedly arranged in a mounting hole at the upper end of a second mounting frame, the second mounting frame is fixedly arranged on one side of two connecting fixing plates (19), a second control component (29) is fixedly arranged at the upper end of the second mounting frame, an alarm light (30) is arranged on the second control component (29), and the nuclear pore membrane detection component (27) is electrically connected to the second control component (29).

5. A continuous nuclear pore membrane detection device according to claim 4, characterized in that: The bearing mechanism comprises a plurality of groups of fixed structures, wherein the plurality of groups of fixed structures are arranged in an array at equal intervals on the conveyor belt (11), wherein one group of the fixed structures consists of two symmetrically arranged fixed molds (12), wherein a fixed plate (13) is fixedly provided at the bottom end of each of the fixed molds (12), wherein the fixed plate (13) is fixedly connected to the conveyor belt (11), wherein auxiliary support rods (14) are symmetrically provided at the bottom end of each of the fixed molds (12), wherein the auxiliary support rods (14) are arranged in a T shape, wherein a circular through hole is provided at the upper end of each of the fixed molds (12), wherein a limit frame (17) is fixedly provided at one end of each of the circular through holes, wherein the limit frame (17) is fixedly provided at one end of each of the fixed molds (12). A carrying plate (15) is closely attached to the upper end of the frame (17), a push rod (16) is fixedly arranged at the bottom end of the carrying plate (15), and holes are arranged on the conveyor belt (11) at positions corresponding to the push rod (16). Guide rods (18) are symmetrically arranged between the two connecting and fixing plates (19) and at positions corresponding to the lower part of the nuclear pore membrane cutting component (25). The two guide rods (18) are respectively fixed on one side of the two connecting and fixing plates (19), and the two guide rods (18) are respectively aligned with the positions of the two rows of fixed molds (12). A linkage component for driving the conveyor belt (11) to rotate is arranged at one end of the driving roller.

6. A continuous nuclear pore membrane detection device according to claim 5, characterized in that: The linkage assembly comprises two mounting friction wheels (31), the two mounting friction wheels (31) are rotatably mounted on the rotating shafts at both ends of the driving roller, friction plates (36) are frictionally mounted on the mounting friction wheels (31), the friction plates (36) are respectively fixedly mounted on the two ends of the third mounting frame, the third mounting frame is fixedly mounted on one side of the nuclear pore membrane detection component (27), a plurality of ratchet teeth (32) are fixedly mounted inside the mounting friction wheel (31), a pawl (33) is provided on the rotating shaft of the driving roller at a position corresponding to the position of the ratchet teeth (32), a rotating plate is rotatably mounted on the rotating shafts at both ends of the pawl (33), the rotating plate is fixedly mounted on the rotating shaft of the driving roller, a stopper plate (34) is fixedly mounted on the rotating shaft of the driving roller at a position corresponding to one side of the pawl (33), a fixed tube (35) is fixedly mounted on one side of the rotating plate at a position coaxial with the rotating shaft at one end of the pawl (33), and a torsion spring is fixedly mounted inside the fixed tube (35) and between the rotating roller at one end of the pawl (33).

7. A continuous nuclear pore membrane detection device according to claim 6, characterized in that: One end of the push rod (16) is provided with a ball, and one end of the push rod (16) is symmetrically provided with a limit plate.

8. A continuous nuclear pore membrane detection device according to claim 1, characterized in that: A material guide plate (37) is fixedly provided on the first support frame (20) at a position corresponding to one end of the conveyor belt (11), and the material guide plate (37) is arranged in an inclined manner.

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