Sealed container non-destructive testing apparatus and method of use

Abstract

The application relates to the technical field of detection equipment, and discloses a sealed container nondestructive detection device and a use method, which comprises a detection machine base, a sliding installation cylinder is slidably adjusted and installed on the upper side of the detection machine base through a supporting installation structure, two transmission mounting plates are fixedly installed on the front side of the sliding installation cylinder, a separation detection mechanism is rotatably installed on the inner side of the transmission mounting plates through detection transmission structure, and a clamping treatment mechanism is rotatably installed on the outer side of the transmission mounting plates through judgment transmission structure; the sealed container nondestructive detection device is provided with a rapid sampling inspection function structure, can realize automatic return to a production line for subsequent processes when detection is qualified, and unqualified products can be placed in a detection placing table and recorded through data, so that detection processing personnel can timely and quickly process and feedback production problems, corresponding production process problems can be found and adjusted in time, and the yield is improved.

Description

Technical Field

[0001] This invention relates to the technical field of testing equipment, specifically to a non-destructive testing device for sealed containers and its usage method. Background Technology

[0002] As people's demand for airtight storage continues to increase, the production efficiency and sealing effect requirements of various cup containers used for airtight storage are also increasing. Cup-type airtight containers achieve a sealing effect after the bottle mouth is tightened through a threaded structure that fits the cup body and the bottle mouth. However, existing production lines for cup-type airtight containers lack rapid testing equipment, which means that these containers can only be tested by sampling from each batch. The sealing effect of these containers consists of two parts: the integrity of the cup body and the threaded connection of the bottle mouth. Usually, only the presence of defects in the cup body can be detected, and it is not possible to test the sealing effect of both parts at the same time. As a result, some products have leakage problems in the seal between the lid and the cup body during use after leaving the factory. Furthermore, due to the limited testing methods, the production line cannot receive timely feedback and adjustments, resulting in a low yield rate of cup and bottle-type airtight containers in the market. Summary of the Invention

[0003] The purpose of this invention is to provide a non-destructive testing device and method for sealed containers, which overcomes the above-mentioned defects in the prior art.

[0004] The present invention is achieved through the following technical solution.

[0005] This invention discloses a non-destructive testing device for sealed containers, comprising a testing base. A sliding mounting cylinder is slidably mounted on the upper side of the testing base via a support mounting structure. Two transmission mounting plates are fixedly mounted on the front side of the sliding mounting cylinder. A separation testing mechanism is rotatably mounted on the inner transmission mounting plate via a detection transmission structure. A clamping processing mechanism is rotatably mounted on the outer transmission mounting plate via a judgment transmission structure. The separation testing mechanism includes a testing sealing cover and a separation testing seat installed therein. The testing sealing cover has a testing mounting hole, and the separation testing seat is installed inside the testing sealing cover through the testing mounting hole via an air transmission connection structure. A functional partition plate is fixedly mounted on the lower end face of the separation testing seat. The separation detection seat is equipped with two air pressure sensing probes, which are respectively placed inside the detection sealing cover and under the functional partition plate. The separation detection seat has a connecting air passage with two output ports, one on the side of the separation detection seat and the other connecting to the central through hole of the functional partition plate. The outer side of the functional partition plate is provided with an inflatable sealing annular airbag. The outer wall of the sealing annular airbag is provided with a telescopic rubber ring that can be squeezed and sealed with the inner wall of the cup mouth. The clamping and processing mechanism includes a clamping transmission end seat. The inner end of the clamping transmission end seat is provided with a sleeve ring body. The inner wall of the sleeve ring body is provided with an inflatable clamping annular airbag that can be inflated to fix the cup body. A detection placement stage is installed on the rear side of the upper surface of the detection machine base.

[0006] In a further technical solution, the detection sealing cover is made from the original cover of the sealed container to be tested, and the detection mounting hole is formed by drilling a hole in the center of the cover.

[0007] In a further technical solution, the connecting airway has two output ports, each with a pressure valve orifice installed at its end. The lower side wall of the connecting airway is connected to a linkage airway. The inner wall of the functional partition plate has an airway annular cavity. The end of the linkage airway is connected to the airway annular cavity. The airway annular cavity is connected to an air transmission groove. The air transmission port of the sealed annular airbag is placed in the air transmission groove.

[0008] A further technical solution is provided in which fixed side plates are symmetrically arranged on the top outer wall of the clamping transmission end seat, and a push-pull linkage cavity is provided on the inner wall of the clamping transmission end seat. An electromagnet is fixedly installed in the push-pull linkage cavity, and a permanent magnet piston plate is slidably installed in the push-pull linkage cavity and a return spring is installed in cooperation. A connecting hole groove is provided at one end of the push-pull linkage cavity near the sleeve ring body part, and the air transmission port of the clamping ring airbag is placed in the connecting hole groove. An air inlet and outlet hole is provided at the bottom of the push-pull linkage cavity.

[0009] A further technical solution is that the determination transmission structure includes a determination telescopic rod fixedly installed on the outer wall of the transmission mounting plate on the outside. A determination function seat is fixedly installed at the telescopic end of the determination telescopic rod. A determination shifting motor is embedded and fixedly installed on the inner wall of the determination function seat. An installation end block is fixedly installed at the end of the output shaft of the determination shifting motor. The outer wall of the installation end block is fixed with the fixed side plate through a screw and screw hole structure.

[0010] A further technical solution includes a mounting top plate, an extension end block on the lower side of the mounting top plate, a sealing top plate fixedly mounted at the end of the extension end block, a threaded mating protrusion at the bottom of the sealing top plate, a threaded mating groove on the top end face of the embedded mating plate, the threaded mating protrusion and the threaded mating groove being threadedly engaged and fixed, a detection connecting pipe being installed on the upper end face of the sealing top plate, a pressure transmission chamber being provided inside the embedded mating plate, the bottom of the pressure transmission chamber being connected to the connecting air passage, and in the installed mating state, the bottom of the detection connecting pipe being connected to the pressure transmission chamber.

[0011] A further technical solution is provided, wherein the detection transmission structure includes a detection telescopic rod fixedly installed on the outer wall of the transmission mounting plate on the inner side, a detection mounting plate is installed at the telescopic end of the detection telescopic rod, a detection function seat is fixedly installed on the detection mounting plate, a rotary motor is embedded and fixedly installed in the detection function seat, and the output shaft of the rotary motor is fixedly installed in the central groove of the mounting top plate.

[0012] A further technical solution includes a support column, which is fixedly installed on the top wall of the testing machine base. A mounting slide is slidably installed on the support column. The mounting slide can be fixed to a suitable height on the support column by means of a rubber pad in the sliding groove and a fixing screw. An adjusting slide rail is fixedly installed on the inner end of the mounting slide by screws. The adjusting slide rail has a sliding mounting groove, and a sliding mounting shaft is installed in the sliding mounting groove. The sliding mounting shaft is slidably installed with the sliding mounting cylinder.

[0013] A further technical solution is provided, wherein the top of the separation detection seat is provided with a sealing inner plate, the sealing inner plate is in contact with the inner top wall of the detection sealing cover, and a detection main module is embedded and fixedly installed in the inner wall of the separation detection seat. The detection main module includes a battery module, a Bluetooth communication module, a data storage module, and a barometric pressure sensor module, and the barometric pressure sensor module is connected to the barometric pressure sensor probe.

[0014] In a further technical solution, the testing base is provided with a main control unit, which is connected to and controls a pressure display module, a data control module, and a button adjustment module. An air pump assembly is embedded inside the testing base, and the air pump assembly is connected to a corresponding air pressure transmission and air pressure transmission component through an air pipe.

[0015] The present invention also provides a method of using a non-destructive testing device for sealed containers, comprising:

[0016] S1. Manufacturing test parts: Take an original sealing cap of a series of sealed containers to be tested and process it to make test parts. Drill a hole in the center of the sealing cap to form a test mounting hole.

[0017] S2. Assembly: Insert the embedded docking plate end into the detection mounting hole, and place the sealing top plate end on the top outer wall of the detection sealing cover. The assembly is achieved by using the threaded docking protrusion and the threaded docking groove. The detection sealing cover and the separation detection mechanism assembly are fixedly installed in the corresponding position of the detection transmission mechanism. The corresponding air pump assembly is connected to the corresponding detection telescopic rod, judgment telescopic rod and detection connecting pipe with the guide tube.

[0018] S3. Device positioning setting: Place the assembled device on the side of the production conveyor belt of this series of sealed containers, and position its separation detection mechanism and clamping processing mechanism at a suitable height on the corresponding sealing container transmission horizontal plane of the conveyor belt.

[0019] S4. Sampling inspection during production and transfer: In the production and transfer process of this series of sealed containers, the air pump assembly is started intermittently at regular intervals. First, the judgment telescopic rod slides down, and the sleeve ring is placed on the outside of the corresponding sealed container cup. At the same time, the electromagnet is started, which pushes the permanent magnet piston plate to slide and push the air pressure in the air-pushing linkage chamber into the clamping ring airbag, so that the clamping ring airbag forms a clamping and fixing effect on the outer wall of the cup. Then, the judgment shifting motor is started, which drives the clamping and processing mechanism and the sampled sealed container to deflect towards the inspection placement platform and place it in the inspection position.

[0020] S5. Sealed Container Inspection: The detection telescopic rod slides the detection function seat downwards, aligning the detection sealing cover with the mouth of the sealed container. The rotating motor then rotates the detection sealing cover, securing it firmly to the sealed container. The detection air pump assembly inputs air pressure through the detection connecting pipe into the connecting air passage, simultaneously outputting air pressure into the sealed container and to the side of the separating detection seat. During this process, some air pressure passes through the linkage air passage into the sealing annular airbag, causing it to expand. This, combined with the telescopic rubber ring, separates the mouth of the sealed container from the container storage cavity. The air pressure output effect, along with the air pressure valve orifice, applies a specified air pressure to both the mouth of the container and the container storage cavity simultaneously. The main detection module remains running, using two sets of air pressure sensor probes to detect the internal air pressure.

[0021] S6. Detection and Judgment Processing: The air pressure sensor probe on the side of the separation detection seat realizes stable air pressure detection at the cup opening, while the air pressure sensor probe at the lower end of the functional partition plate realizes stable air pressure detection inside the container storage cavity. When the pressure sensing values ​​of both air pressure sensor probes are stable and within the set threshold, the detection is qualified. The qualified sealed container is returned to the conveyor belt through structural reset. If the pressure sensing value of any one of the air pressure sensor probes changes, a sealing problem occurs. The information is recorded and transmitted to the main control unit inside the detection machine base. After structural reset, the unqualified sealed container is released and left in the detection placement table for processing.

[0022] The beneficial effects of this invention are:

[0023] The present invention discloses a non-destructive testing device for sealed containers, which is equipped with a rapid sampling inspection function. By setting it on the side of the production line conveyor belt, and through the detection and judgment transmission structure, it can realize the function of automatic sampling inspection at regular intervals during the production and conveying of sealed containers. By cooperating with the detection and judgment transmission structure and the data processing and recording module of the main control unit in the detection placement table and the detection machine base, qualified products can be automatically returned to the production line for subsequent processes, while unqualified products can be placed in the detection placement table and the data can be recorded. This allows the inspection personnel to handle and report production problems in a timely manner, enabling timely detection and adjustment of corresponding production process problems, thereby improving the yield rate.

[0024] The present invention discloses a non-destructive testing device for sealed containers, which is equipped with a separate synchronous inspection function structure. By using only one end cap of the series of sealed containers to make a test part, the non-destructive sampling inspection function of the series of sealed containers can be realized. At the same time, the test part made from the original cap has higher sealing test reproducibility and reliability. During the test, the separation test mechanism can separate the cup mouth of the sealed container to be tested from the sealed storage cavity of the cup body and perform pressure testing. Thus, when a defective product is found, the recorded data can quickly determine whether there are cracks or holes in the cup body or problems with the threads or rubber gasket sealing process between the cup mouth and the sealed end cap, thereby realizing rapid feedback and adjustment of the production process. Attached Figure Description

[0025] To more clearly illustrate the technical solutions in the embodiments of the invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0026] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0027] Figure 1This is a schematic diagram of the overall structure of the present invention;

[0028] Figure 2 yes Figure 1 A schematic diagram of the installation state of the middle separation detection mechanism 35;

[0029] Figure 3 yes Figure 1 Enlarged schematic diagram of the structure of the middle separation detection mechanism 35;

[0030] Figure 4 yes Figure 2 A cross-sectional view of the split structure of the middle partition detection mechanism 35;

[0031] Figure 5 yes Figure 1 A schematic diagram of the structure of the clamping and processing mechanism 25; Detailed Implementation

[0032] The following is combined Figure 1-5 The present invention will be described in detail below. For ease of description, the directions referred to below are defined as follows: the directions of up, down, left, right, front, and back mentioned below are the same as... Figure 1 The directions of the projection relationship are consistent in all directions: up, down, left, right, front, and back.

[0033] The non-destructive testing device for sealed containers, as described in Figures 1-5, includes a testing base 11. A sliding mounting cylinder 20 is slidably mounted on the upper side of the testing base 11 via a support mounting structure. Two transmission mounting plates 21 are fixedly mounted on the front side of the sliding mounting cylinder 20. A separation testing mechanism 35 is rotatably mounted on the inner transmission mounting plate 21 via a detection transmission structure. A clamping processing mechanism 25 is rotatably mounted on the outer transmission mounting plate 21 via a judgment transmission structure. The separation testing mechanism 35 includes a testing sealing cover 32 and a separation testing seat 44 installed therein. The testing sealing cover 32 has a testing mounting hole 36. The separation testing seat 44 is installed inside the testing sealing cover 32 through the testing mounting hole 36 via an air transmission connection structure. A functional separation plate 51 is fixedly mounted on the lower end face of the separation testing seat 44. The separation detection seat 44 is equipped with two air pressure sensing probes 45, which are respectively placed inside the detection sealing cover 32 and under the functional partition plate 51. The separation detection seat 44 is provided with a connecting air passage 47, which has two output ports respectively placed on the side of the separation detection seat 44 and the central through hole of the functional partition plate 51. The outer side of the functional partition plate 51 is provided with an inflatable sealing annular airbag 53. The outer wall of the sealing annular airbag 53 is provided with a telescopic rubber ring 54 that can be squeezed and sealed with the inner wall of the cup mouth. The clamping and processing mechanism 25 includes a clamping transmission end seat 60. The inner end of the clamping transmission end seat 60 is provided with a sleeve ring part 61. The inner wall of the sleeve ring part 61 is provided with an inflatable clamping annular airbag 62 that can be inflated and fixed to the cup body. The detection placement stage 34 is installed on the rear side of the upper surface of the detection machine base 11.

[0034] Preferably, the test sealing cover 32 is made from the original cover of the sealed container to be tested, and the test mounting hole 36 is formed by drilling a hole in the center of the cover.

[0035] Preferably, the connecting airway 47 has two output ports, each with a pressure valve orifice 48 installed at its end. The lower side wall of the connecting airway 47 is connected to a linkage airway 50. The inner wall of the functional partition plate 51 is provided with an airway annular cavity 52. ​​The end of the linkage airway 50 is connected to the airway annular cavity 52. ​​The airway annular cavity 52 is connected to an air transmission groove 55. The air transmission port of the sealed annular airbag 53 is placed in the air transmission groove 55.

[0036] Preferably, the top outer wall of the clamping transmission end seat 60 is symmetrically provided with fixed side plates 63, the inner wall of the clamping transmission end seat 60 is provided with a push-push linkage cavity 64, an electromagnet 66 is fixedly installed in the push-push linkage cavity 64, a permanent magnet piston plate 67 is slidably installed in the push-push linkage cavity 64 and a return spring 68 is installed in cooperation, the push-push linkage cavity 64 is provided with a connecting hole groove 69 near the sleeve ring part 61, the air transmission port of the clamping ring airbag 62 is placed in the connecting hole groove 69, and the bottom of the push-push linkage cavity 64 is provided with an inlet and outlet air hole 65.

[0037] Preferably, the determination transmission structure includes a determination telescopic rod 22 fixedly installed on the outer wall of the transmission mounting plate 21 on the outside. A determination function seat 23 is fixedly installed at the telescopic end of the determination telescopic rod 22. A determination shift motor 24 is embedded and fixedly installed on the inner wall of the determination function seat 23. An installation end block 26 is fixedly installed at the end of the output shaft of the determination shift motor 24. The outer wall of the installation end block 26 is fixed with the fixed side plate 63 by a screw and screw hole structure.

[0038] Preferably, the air transmission connection structure includes a mounting top plate 37, an extension end block 38 on the lower side of the mounting top plate 37, a sealing top plate 40 fixedly installed at the end of the extension end block 38, a threaded mating protrusion 57 at the bottom of the sealing top plate 40, a threaded mating groove 56 on the top end face of the embedded mating plate 41, the threaded mating protrusion 57 and the threaded mating groove 56 are threadedly engaged and fixed, a detection connecting pipe 39 is installed on the upper end face of the sealing top plate 40, a pressure transmission chamber 42 is provided inside the embedded mating plate 41, the bottom of the pressure transmission chamber 42 is connected to the connecting air passage 47, and in the installed mating state, the bottom of the detection connecting pipe 39 is connected to the pressure transmission chamber 42.

[0039] Preferably, the detection transmission structure includes a detection telescopic rod 27 fixedly installed on the outer wall of the transmission mounting plate 21 on the inner side, a detection mounting plate 28 installed at the telescopic end of the detection telescopic rod 27, a detection function seat 29 fixedly installed on the detection mounting plate 28, a rotary motor 30 embedded and fixedly installed in the detection function seat 29, and the output shaft of the rotary motor 30 fixedly installed in the central groove of the mounting top plate 37.

[0040] Preferably, the support mounting structure includes a support column 15, which is fixedly mounted on the top wall of the testing base 11. A mounting slide 16 is slidably mounted on the support column 15. The mounting slide 16 can be fixed to the support column 15 at a suitable height by means of a rubber pad in the slide groove and a fixing screw 17. An adjusting slide rail 18 is fixedly mounted on the inner end of the mounting slide 16 by screws. The adjusting slide rail 18 is provided with a sliding mounting groove 19. A sliding mounting shaft 81 is installed in the sliding mounting groove 19. A sliding mounting cylinder 20 is slidably mounted on the sliding mounting shaft 81.

[0041] Preferably, the top of the separation detection seat 44 is provided with a sealing inner plate 43, which contacts the inner top wall of the detection sealing cover 32. The inner wall of the separation detection seat 44 is embedded and fixedly installed with a detection main module 46, which includes a battery module, a Bluetooth communication module, a data storage module, and a pressure sensor module. The pressure sensor module is connected to the pressure sensing probe 45.

[0042] Preferably, the testing base 11 is equipped with a main control unit, which is connected to and controls a pressure display module 12, a data control module 13, and a button adjustment module 14. An air pump assembly is embedded inside the testing base 11, and the air pump assembly is connected to the corresponding air pressure transmission and air pressure transmission components through an air pipe.

[0043] A method of using a non-destructive testing device for sealed containers includes:

[0044] S1. Manufacturing test parts: Take an original sealing cap of a series of sealed containers to be tested and process it to make test parts. Drill a hole in the center of the sealing cap to form a test mounting hole 36.

[0045] S2. Assembly: Insert the end of the embedded docking plate 41 into the detection mounting hole 36, and place the end of the sealing top plate 40 on the top outer wall of the detection sealing cover 32. The assembly is achieved by the threaded docking protrusion 57 and the threaded docking groove 56. The assembly of the detection sealing cover 32 and the separation detection mechanism 35 is fixedly installed in the corresponding position of the detection transmission mechanism. The corresponding air pump assembly is connected to the corresponding detection telescopic rod 27, the judgment telescopic rod 22 and the detection connecting pipe 39 through the guide tube.

[0046] S3. Device positioning setting: Place the assembled device on the side of the production conveyor belt of this series of sealed containers, and position the separation detection mechanism 35 and the clamping processing mechanism 25 at a suitable height on the corresponding horizontal plane of the conveyor belt for the sealed container.

[0047] S4. Sampling inspection during production and transfer: In the production and transfer process of this series of sealed containers, the air pump assembly is started intermittently at regular intervals. First, the judgment telescopic rod 22 is slid down to place the sleeve ring part 61 on the outside of the corresponding sealed container cup. At the same time, the electromagnet 66 is started, which pushes the permanent magnet piston plate 67 to slide and push the air pressure in the air-pushing linkage chamber 64 into the clamping ring air bag 62. This makes the clamping ring air bag 62 clamp and fix the outer wall of the cup. Then, the judgment shifting motor 24 is started to drive the clamping processing mechanism 25 and the sampled sealed container to be deflected towards the inspection placement table 34 and placed in the inspection position.

[0048] S5. Sealed Container Inspection: The detection telescopic rod 27 drives the detection function seat 29 to slide downward, aligning the detection sealing cover 32 with the mouth of the sealed container. The rotary motor 30 is then activated to rotate the detection sealing cover 32, achieving a secure installation between the detection sealing cover 32 and the sealed container. The detection air pump assembly inputs air pressure through the detection connecting pipe 39 into the connecting air passage 47, simultaneously outputting air pressure into the sealed container and to the separating detection seat 44. During this process, some air pressure passes through the linkage air passage 50 into the sealing annular airbag 53, causing the sealing annular airbag 53 to expand. Combined with the telescopic rubber ring 54, this separates the mouth of the sealed container from the container storage cavity. The air pressure output effect, along with the air pressure valve orifice 48, applies a specified air pressure to both the mouth of the container and the container storage cavity simultaneously. The main detection module 46 remains activated, using two sets of air pressure sensor probes 45 to detect the internal air pressure.

[0049] S6. Detection and Judgment Processing: The air pressure sensor probe 45 on the side of the separation detection seat 44 realizes stable detection of air pressure at the mouth of the cup, while the air pressure sensor probe 45 at the lower part of the functional partition plate 51 realizes stable detection of air pressure in the container storage cavity. When the pressure sensing values ​​of both air pressure sensor probes 45 are stable and within the set threshold, the detection is qualified. The qualified sealed container is returned to the conveyor belt through structural reset. If the pressure sensing value of any one of the air pressure sensor probes 45 changes, a sealing problem occurs. The data is recorded and transmitted to the main control body in the detection machine base 11. After structural reset, the unqualified sealed container is released and left in the detection placement table 34 for processing.

[0050] The present invention provides a non-destructive testing device for sealed containers, which is equipped with a rapid sampling inspection function. By setting it on the conveyor belt side of the production line, and through the detection and judgment transmission structure, it can realize the automatic sampling inspection function periodically during the production and conveying of sealed containers. In conjunction with the detection and judgment transmission structure and the data processing and recording module of the main control unit in the detection placement table 34 and the detection base 11, it can realize that qualified products can be automatically returned to the production line for subsequent processes, while unqualified products can be placed in the detection placement table 34 and the data can be recorded, which can facilitate the timely and rapid handling and feedback of production problems by inspection personnel. It can also realize the timely detection and adjustment of corresponding production process problems, thereby improving the yield rate.

[0051] The present invention provides a non-destructive testing device for sealed containers, which is equipped with a separate synchronous inspection function structure. By taking only one end cap of the series of sealed containers to make a test part, the non-destructive sampling inspection function of the series of sealed containers can be realized. At the same time, the test part made from the original cap has higher sealing test reproducibility and reliability. During the test, the separation test mechanism 35 can separate the cup mouth of the sealed container to be tested from the sealed storage cavity of the cup body and perform pressure test. Thus, when a defective product is found, the recorded data can quickly determine whether there are cracks or holes in the cup body or problems with the threads or rubber gasket sealing process between the cup mouth and the sealed end cap, thereby realizing rapid feedback and production process adjustment.

[0052] The above embodiments are only for illustrating the technical concept and features of the present invention, and are intended to enable those skilled in the art to understand and implement the present invention. They should not be construed as limiting the scope of protection of the present invention. All equivalent changes or modifications made in accordance with the spirit and essence of the present invention should be covered within the scope of protection of the present invention.

Claims

1. A non-destructive testing device for sealed containers, comprising a testing base, wherein a sliding mounting cylinder is slidably mounted on the upper side of the testing base via a support mounting structure, and two transmission mounting plates are fixedly mounted on the front side of the sliding mounting cylinder, characterized in that: The inner transmission mounting plate is equipped with a separation detection mechanism that can be raised and lowered rotatably via a detection transmission structure. The outer transmission mounting plate is equipped with a clamping processing mechanism that can be raised and lowered rotatably via a judgment transmission structure. The separation detection mechanism includes a detection sealing cover and a separation detection seat installed therein. The detection sealing cover has a detection mounting hole, and the separation detection seat is installed inside the detection sealing cover through the detection mounting hole via an air transmission connection structure. A functional separation plate is fixedly installed on the lower end face of the separation detection seat. The separation detection seat is equipped with two air pressure sensing probes, and the two air pressure sensing probes are respectively placed on the detection... The test cover is located inside and below the functional partition plate. The partition test seat is provided with a connecting air passage. The connecting air passage has two output ports located on the side of the partition test seat and connected to the central through hole of the functional partition plate. The functional partition plate is provided with an inflatable sealing annular airbag on the outside. The outer wall of the sealing annular airbag is provided with a telescopic rubber ring that can be squeezed and sealed with the inner wall of the cup mouth. The clamping and processing mechanism includes a clamping transmission end seat. The inner end of the clamping transmission end seat is provided with a sleeve ring body. The inner wall of the sleeve ring body is provided with an inflatable clamping annular airbag that can be inflated and fixed to the cup body. A test placement stage is installed on the rear side of the upper surface of the test machine base. The detection sealing cap is made from the original cap of the sealed container to be tested, and the detection mounting hole is formed by drilling a hole in the center of the cap. The connecting airway has two output ports, each with a pressure valve orifice installed at its end. The lower side wall of the connecting airway is connected to a linkage airway. The inner wall of the functional partition plate has an airway annular cavity. The end of the linkage airway is connected to the airway annular cavity. The airway annular cavity is connected to an air transmission groove. The air transmission port of the sealed annular airbag is placed in the air transmission groove. By setting up a separation detection mechanism, it is possible to separate the mouth of the sealed container to be tested from the sealed storage cavity of the container body.

2. The non-destructive testing device for sealed containers according to claim 1, characterized in that: The clamping transmission end seat has symmetrical fixed side plates on its top outer wall. The clamping transmission end seat has a push-push linkage cavity on its inner wall. An electromagnet is fixedly installed in the push-push linkage cavity. A permanent magnet piston plate is slidably installed in the push-push linkage cavity and a return spring is installed in cooperation with it. The push-push linkage cavity has a connecting hole groove near the sleeve ring part. The air transmission port of the clamping ring airbag is placed in the connecting hole groove. The bottom of the push-push linkage cavity has an air inlet and outlet hole.

3. The non-destructive testing device for sealed containers according to claim 2, characterized in that: The determination transmission structure includes a determination telescopic rod fixedly installed on the outer wall of the transmission mounting plate on the outside. A determination function seat is fixedly installed at the telescopic end of the determination telescopic rod. A determination shifting motor is embedded and fixedly installed in the inner wall of the determination function seat. An installation end block is fixedly installed at the end of the output shaft of the determination shifting motor. The outer wall of the installation end block is fixed to the fixed side plate with a screw and screw hole structure.

4. The non-destructive testing device for sealed containers according to claim 3, characterized in that: The air transmission connection structure includes a mounting top plate, an extension end block on the lower side of the mounting top plate, a sealing top plate fixedly mounted at the end of the extension end block, a threaded mating protrusion at the bottom of the sealing top plate, a threaded mating groove on the top end face of the embedded mating plate, the threaded mating protrusion and the threaded mating groove being threadedly engaged and fixed, a detection connecting pipe being installed on the upper end face of the sealing top plate, a pressure transmission chamber being provided inside the embedded mating plate, the bottom of the pressure transmission chamber being connected to the connecting air passage, and in the installed mating state, the bottom of the detection connecting pipe being connected to the pressure transmission chamber.

5. The non-destructive testing device for sealed containers according to claim 4, characterized in that: The detection transmission structure includes a detection telescopic rod fixedly installed on the outer wall of the transmission mounting plate on the inner side. A detection mounting plate is installed at the telescopic end of the detection telescopic rod. A detection function seat is fixedly installed on the detection mounting plate. A rotary motor is embedded and fixedly installed in the detection function seat. The output shaft of the rotary motor is fixedly installed in the central groove of the mounting top plate.

6. The non-destructive testing device for sealed containers according to claim 5, characterized in that: The supporting installation structure includes a support column, which is fixedly installed on the top wall of the testing machine base. A mounting slide is slidably installed on the support column. The mounting slide can be fixed to a suitable height on the support column by means of a rubber pad in the sliding groove and a fixing screw. An adjusting slide rail is fixedly installed on the inner end of the mounting slide by screws. The adjusting slide rail is provided with a sliding mounting groove. A sliding mounting shaft is installed in the sliding mounting groove. The sliding mounting cylinder is slidably installed on the sliding mounting shaft.

7. The non-destructive testing device for sealed containers according to claim 6, characterized in that: The top of the separation detection seat is provided with a sealing inner plate, which contacts the inner top wall of the detection sealing cover. A detection main module is embedded and fixedly installed in the inner wall of the separation detection seat. The detection main module includes a battery module, a Bluetooth communication module, a data storage module, and a pressure sensor module. The pressure sensor module is connected to the pressure sensing probe. A main control unit is provided inside the detection base. The main control unit is connected to and controls a pressure display module, a data control module, and a button adjustment module. An air pump assembly is embedded inside the detection base. The air pump assembly is connected to the corresponding air pressure transmission and air pressure transmission components through an air pipe.

8. A method of using a non-destructive testing device for sealed containers, characterized in that, The non-destructive testing device for a sealed container according to claim 7 includes: S1. Manufacturing test parts: Take an original sealing cap of a series of sealed containers to be tested and process it to make test parts. Drill a hole in the center of the sealing cap to form a test mounting hole. S2. Assembly: Insert the embedded docking plate end into the detection mounting hole, and place the sealing top plate end on the top outer wall of the detection sealing cover. The assembly is achieved by using the threaded docking protrusion and the threaded docking groove. The detection sealing cover and the separation detection mechanism assembly are fixedly installed in the corresponding position of the detection transmission mechanism. The corresponding air pump assembly is connected to the corresponding detection telescopic rod, judgment telescopic rod and detection connecting pipe with the guide tube. S3. Device positioning setting: Place the assembled device on the side of the production conveyor belt of this series of sealed containers, and position its separation detection mechanism and clamping processing mechanism at a suitable height on the corresponding sealing container transmission horizontal plane of the conveyor belt. S4. Sampling inspection during production and transfer: In the production and transfer process of this series of sealed containers, the air pump assembly is started intermittently at regular intervals. First, the judgment telescopic rod slides down, and the sleeve ring is placed on the outside of the corresponding sealed container cup. At the same time, the electromagnet is started, which pushes the permanent magnet piston plate to slide and push the air pressure in the air-pushing linkage chamber into the clamping ring airbag, so that the clamping ring airbag forms a clamping and fixing effect on the outer wall of the cup. Then, the judgment shifting motor is started, which drives the clamping and processing mechanism and the sampled sealed container to deflect towards the inspection placement platform and place it in the inspection position. S5. Sealed Container Inspection: The detection telescopic rod slides the detection function seat downwards, aligning the detection sealing cover with the mouth of the sealed container. The rotating motor then rotates the detection sealing cover, securing it firmly to the sealed container. The detection air pump assembly inputs air pressure through the detection connecting pipe into the connecting air passage, simultaneously outputting air pressure into the sealed container and to the side of the separating detection seat. During this process, some air pressure passes through the linkage air passage into the sealing annular airbag, causing it to expand. This, combined with the telescopic rubber ring, separates the mouth of the sealed container from the container storage cavity. The air pressure output effect, along with the air pressure valve orifice, applies a specified air pressure to both the mouth of the container and the container storage cavity simultaneously. The main detection module remains running, using two sets of air pressure sensor probes to detect the internal air pressure. S6. Detection and Judgment Processing: The air pressure sensor probe on the side of the separation detection seat realizes stable air pressure detection at the cup opening, while the air pressure sensor probe at the lower end of the functional partition plate realizes stable air pressure detection inside the container storage cavity. When the pressure sensing values ​​of both air pressure sensor probes are stable and within the set threshold, the detection is qualified. The qualified sealed container is returned to the conveyor belt through structural reset. If the pressure sensing value of any one of the air pressure sensor probes changes, a sealing problem occurs. The information is recorded and transmitted to the main control unit inside the detection machine base. After structural reset, the unqualified sealed container is released and left in the detection placement table for processing.

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