Package pressure resistance detection device

Abstract

The invention discloses a package pressure resistance detection device, and particularly relates to the technical field of pressure resistance testing, the package pressure resistance detection device comprises a positioning plate, an inclined pressing rod, a top pressing block, a top pressing piece and a middle pressing piece, the inclined pressing rod is arranged above the positioning plate; the top pressing piece is mounted at the bottom end of the inclined pressing rod, and a top pressing block is arranged on the top pressing piece; the middle pressing piece is arranged on one side of the outer wall of the inclined pressing rod. The device has the advantages of meeting the multi-part and multi-azimuth angle test requirements of the corner position of the packaging material at one time, greatly improving the pressure resistance detection efficiency, and ensuring the consistency of the stress state of each point location and the test condition, thereby solving the problem that the multi-part and multi-azimuth angle test requirements are difficult to meet at one time, and improving the test efficiency. Therefore, when the stable pressure is applied for detection, the pressure resistance detection process is tedious, and the efficiency of the pressure resistance detection is greatly reduced.

Description

Technical Field

[0001] This invention relates to the field of pressure resistance testing technology, and more specifically, to a packaging pressure resistance testing device. Background Technology

[0002] In new materials-related services, packaging pressure resistance testing devices test packaging by applying stable pressure. Their core function is to test and evaluate the pressure resistance of packaging materials and prevent the risk of damage caused by external forces during distribution.

[0003] Among existing publicly available documents, Chinese Patent Publication No. CN207850829U discloses a high-efficiency automated packaging bag compression testing device for a mesh conveyor. This technology uses a drive motor to drive belt drive rollers, which in turn drives the belt to rotate. Simultaneously, belt guide plates are installed between the belt drive rollers, ensuring that the belt rotates synchronously with the mesh conveyor at all times, without interruption during compression testing, and capable of withstanding significant pressure, effectively improving the efficiency of pressure testing. However, this technology has the following drawbacks.

[0004] In the pressure resistance testing of new material packaging objects, the corner areas of the packaging are divided into top, middle and bottom, and each part needs to be subjected to stable pressure testing at different angles and directions. Each point needs to be adjusted in position and tilted at a specified angle, and the specific position for pressure resistance testing must be adjusted separately for each point. The amount of preparation work is huge. This complex operation makes it difficult to carry out simultaneous pressure resistance testing on different corner points and different angles of the packaging, and it is difficult to meet the testing needs of multiple parts and multiple angles at one time. As a result, the pressure resistance testing process is cumbersome when applying stable pressure, which greatly reduces the efficiency of pressure resistance testing. Summary of the Invention

[0005] In order to overcome the above-mentioned defects of the prior art, the present invention provides the following technical solution: a packaging pressure resistance testing device, including a positioning plate, wherein a diagonal pressure bar is provided above the positioning plate; A top pressure component is installed at the bottom end of the inclined pressure bar, and the top pressure component is provided with a top pressure block; A central pressure-applying component is disposed on one side of the outer wall of the inclined pressure bar, and a central pressure block is installed on the central pressure-applying component; A bottom pressure component is provided on the other side of the outer wall of the inclined pressure bar, and a bottom pressure block is provided on the bottom pressure component; The power component is installed at the top of the diagonal compression bar; The power unit drives the inclined pressure bar to move longitudinally downward at an inclined angle. During this process, the inclined pressure bar drives the top pressure component to move longitudinally downward synchronously at an inclined angle. The top pressure component drives the top pressure block to move longitudinally downward at an inclined angle. The top pressure block simultaneously performs longitudinal downward compression detection on the top corner of the package. At the same time, the inclined pressure bar drives the middle pressure component, which drives the middle pressure block to perform lateral compression detection on the middle corner of the package at an inclined angle. Simultaneously, the inclined pressure bar also drives the bottom pressure component to move longitudinally upward at an inclined angle. Then, the bottom pressure component drives the bottom pressure block to perform longitudinal upward compression detection on the bottom corner of the package at an inclined angle.

[0006] In a preferred embodiment, the top pressure element includes: Both positioning blocks are fixed on the lower inclined surface of the top pressing block, and there is an included angle between the two positioning blocks; The first pressure sensor is installed on the upper inclined surface of the top pressure block. The sensing end of the first pressure sensor is fixedly connected to the bottom end of the inclined pressure rod. The first pressure sensor is used to sense the compressive force of the inclined pressure rod.

[0007] In a preferred embodiment, the vertical cross-sectional shape of both positioning blocks is triangular, and the bottom end of the inclined pressure rod is arranged parallel to the upper inclined surface of the top pressure block.

[0008] In a preferred embodiment, the central pressure-applying component includes: An inclined frame is fixed to one side of the outer wall of the inclined pressure bar. An inclined column is fixed to the inner wall of the inclined frame. A sleeve block is slidably sleeved on the inclined column. The inclined frame is used to guide the sliding of the sleeve block. A linkage rope is fixed to the upper inclined surface of the sleeve block. An arc-shaped block is slidably provided on the inner wall of the linkage rope, and a limit sleeve is fixed at both ends of the outer wall of the arc-shaped block. A support bar is fixed to one side of the limiting sleeve. A linkage block is fixed to the bottom end of the linkage rope. A horizontal bar is fixed to one side of the linkage block. A second pressure sensor is installed at one end of the horizontal bar. The horizontal bar is fixedly connected to the sensing end of the second pressure sensor. The second pressure sensor is fixedly connected to the middle pressure block. A diagonal sleeve is installed on the outer wall of the horizontal diagonal bar. The diagonal sleeve is used to guide the sliding of the horizontal diagonal bar, and the diagonal sleeve is fixedly connected to the positioning plate.

[0009] In a preferred embodiment, the support bar and the diagonal sleeve bar are fixedly connected, and the linkage rope is used to move along the inside of the diagonal sleeve bar.

[0010] In a preferred embodiment, two positioning sleeves are fixed on one side of the inclined sleeve, and a positioning post is fixed on the inner wall of the positioning sleeve. Both the positioning post and the positioning sleeve are slidably connected to the linkage rope.

[0011] In a preferred embodiment, the bottom pressure element includes: A frame strip is fixed to the other side of the outer wall of the inclined pressure bar. A sliding rod is slidably provided on the inner wall of the frame strip, and a pressure guide rod is fixed to one end of the sliding rod. An inclined sleeve plate is installed on the outer wall of the pressure guide rod. The inclined sleeve plate is used to guide the movement of the pressure guide rod, and the inclined sleeve plate is fixedly connected to the positioning plate. The third pressure sensor is installed at the top of the pressure guide rod. The third pressure sensor is used to sense the compressive force of the pressure guide rod. The sensing end of the third pressure sensor is fixedly connected to the pressure guide rod. A longitudinal block is fixed between the third pressure sensor and the bottom pressure block.

[0012] In a preferred embodiment, the frame bar and the pressure guide rod are slidably connected, and the longitudinal block is inclined.

[0013] In a preferred embodiment, the power component includes: A socket plate is fixed to the top of the inclined pressure bar. A guide frame is installed on the outer wall of the socket plate. The guide frame is used to guide the movement of the socket plate. A geared motor is installed at the top of the guide frame. A screw is threaded to the inner wall of the socket plate. The geared motor is used to drive the screw to rotate on the inner wall of the guide frame. The mounting bracket is installed on the lower inclined surface of the guide frame. Both the guide frame and the positioning plate are fixedly connected to the mounting bracket. A controller is installed on one side of the mounting bracket, and the controller is electrically connected to the geared motor.

[0014] In a preferred embodiment, an insert plate is slidably connected to the inner wall of the positioning plate, the insert plate being used to position the packaged item.

[0015] The technical effects and advantages of the present invention.

[0016] 1. This invention utilizes a linkage pressure operation driven by a diagonal pressure bar. A single power component drives the diagonal pressure bar to move downward at a set angle, simultaneously causing the top pressure block, the middle pressure block, and the bottom pressure block to move vertically downward, horizontally upward, and vertically upward, respectively. This applies pressure to various points at the corner of the packaging, enabling simultaneous, multi-angle pressure resistance testing of the top, middle, and bottom of the same corner of the packaging. This completely changes the cumbersome traditional method where each point needs to be adjusted individually and sequentially. It can meet the testing needs of multiple parts and multiple angles at the corner of the packaging in one go, greatly improving the efficiency of pressure resistance testing and ensuring the consistency of the stress state and testing conditions at each point.

[0017] 2. This invention employs precise motion conversion of the inclined frame, linkage rope, inclined sleeve strip, frame strip, and inclined sleeve plate. It can accurately decompose and convert the single longitudinal downward tilting motion of the inclined pressure bar into the lateral tilting motion of the middle pressure block and the longitudinal upward tilting motion of the bottom pressure block. The motion trajectories and angles of the middle and bottom pressure blocks are preset and interconnected through the mechanical structure, ensuring that even under complex angle requirements, the three detection points of the top pressure block, middle pressure block, and bottom pressure block can simultaneously, accurately, and stably reach the predetermined position and apply pressure. This not only avoids errors caused by manual adjustment but also significantly improves the efficiency of corner pressure resistance testing of packaging materials. Attached Figure Description

[0018] Figure 1 This is a schematic diagram of the overall structure of the packaging pressure resistance testing device of the present invention.

[0019] Figure 2 This is a partial structural diagram showing the connection between the inclined pressure bar and the first pressure sensor of the present invention.

[0020] Figure 3 This is a partial structural diagram of the connection between the inclined frame and the inclined column of the present invention.

[0021] Figure 4 This is a schematic diagram of a partial structure of the oblique frame cutoff in this invention.

[0022] Figure 5 This is a schematic diagram of a partial section of the structure at the connection between the linkage rope and the linkage block in this invention.

[0023] Figure 6 This is a schematic diagram of a partial structure of the frame strip cut-off in this invention.

[0024] Figure 7 This is a partial structural diagram of the connection between the third pressure sensor and the pressure guide rod of the present invention.

[0025] Figure 8 This is a bottom view of the power component structure of the present invention.

[0026] Figure 9 This is a rear view structural diagram of the packaging pressure resistance testing device of the present invention.

[0027] The attached diagram is labeled as follows: 1. Positioning plate; 2. Inclined pressure bar; 3. Top pressure block; 4. Middle pressure block; 5. Bottom pressure block; 6. Positioning block; 7. First pressure sensor; 8. Inclined frame; 9. Inclined column; 10. Sleeve block; 11. Linkage rope; 12. Arc-shaped block; 13. Limiting sleeve; 14. Support bar; 15. Linkage block; 16. Horizontal and inclined bar; 17. Second pressure sensor; 18. Longitudinal block; 19. Inclined sleeve; 20. Positioning column; 21. Positioning sleeve; 22. Frame bar; 23. Sliding rod; 24. Guide rod; 25. Inclined sleeve plate; 26. Third pressure sensor; 27. Sleeve plate; 28. Screw; 29. ​​Guide frame; 30. Gear motor; 31. Mounting bracket; 32. Controller; 33. Insert plate. Detailed Implementation

[0028] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0029] like Figure 1 - Figure 9 The packaging pressure resistance testing device shown includes a positioning plate 1, with an inclined pressure bar 2 positioned above the positioning plate 1; a top pressure component installed at the bottom end of the inclined pressure bar 2, with a top pressure block 3 on the top pressure component; a middle pressure component located on one side of the outer wall of the inclined pressure bar 2, with a middle pressure block 4 installed on the middle pressure component; a bottom pressure component located on the other side of the outer wall of the inclined pressure bar 2, with a bottom pressure block 5 on the bottom pressure component; and a power component installed at the top end of the inclined pressure bar 2. The power component drives the inclined pressure bar 2 to move longitudinally downward at an inclined angle, during which the inclined pressure bar 2 drives the top pressure block 3 to move downward. The pressure component moves longitudinally downwards synchronously at an inclined angle. The top pressure component drives the top pressure block 3 to move longitudinally downwards at an inclined angle. The top pressure block 3 simultaneously performs longitudinal downward compression detection on the top corner of the package. At the same time, the inclined pressure rod 2 drives the middle pressure component, which drives the middle pressure block 4 to perform lateral compression detection on the middle corner of the package at an inclined angle. Simultaneously, the inclined pressure rod 2 also drives the bottom pressure component to move longitudinally upwards at an inclined angle. Then, the bottom pressure component drives the bottom pressure block 5 to perform longitudinal upward compression detection on the bottom corner of the package at an inclined angle.

[0030] In this embodiment, as Figure 2As shown, the top pressure application component includes: two positioning blocks 6, both fixed to the lower inclined surface of the top pressure block 3, with an included angle between the two positioning blocks 6; and a first pressure sensor 7, installed on the upper inclined surface of the top pressure block 3, with its sensing end fixedly connected to the bottom end of the inclined pressure rod 2, and used to sense the compressive force of the inclined pressure rod 2. The vertical cross-sectional shape of both positioning blocks 6 is triangular, and the bottom end of the inclined pressure rod 2 is parallel to the upper inclined surface of the top pressure block 3.

[0031] When this technology is in use, the inclined pressure rod 2 drives the first pressure sensor 7 to tilt downwards longitudinally, and the top pressure block 3 drives the two positioning blocks 6 to tilt downwards longitudinally. The top pressure block 3 and the two positioning blocks 6 simultaneously apply longitudinal downward pressure to the top of the corner of the package, and the inclined pressure rod 2 presses against the sensing end of the first pressure sensor 7. In this way, pressure detection is achieved at different points and angles of the corner of the package.

[0032] In this embodiment, as Figure 1 - Figure 5 As shown, the central pressure-applying component includes: an inclined frame 8, fixed to one side of the outer wall of the inclined pressure rod 2, with an inclined column 9 fixed to the inner wall of the inclined frame 8, and a sleeve block 10 slidably sleeved on the inclined column 9; the inclined frame 8 is used to guide the sleeve block 10 to slide; a linkage rope 11, fixed to the upper inclined surface of the sleeve block 10, with an arc-shaped block 12 slidably provided on the inner wall of the linkage rope 11, and a limit sleeve 13 fixed at both ends of the outer wall of the arc-shaped block 12; a support bar 14, fixed to one side of the limit sleeve 13, with a linkage block 15 fixed at the bottom end of the linkage rope 11, and a horizontal inclined rod 16 fixed to one side of the linkage block 15; a second pressure sensor 17 installed at one end of the horizontal inclined rod 16, and the horizontal inclined rod 16 is fixedly connected to the sensing end of the second pressure sensor 17; the second pressure sensor 17 is fixedly connected to the central pressure block 4; and an inclined sleeve strip 19, installed on the outer wall of the horizontal inclined rod 16, which is used to guide the horizontal inclined rod 16 to slide, and is fixedly connected to the positioning plate 1. The support bar 14 is fixedly connected to the inclined sleeve bar 19, and the linkage rope 11 is used to move along the inside of the inclined sleeve bar 19.

[0033] When this technology is in use, when the inclined pressure bar 2 tilts downward longitudinally, the inclined frame 8 drives the inclined column 9 to tilt downward longitudinally. The inclined column 9 causes the sleeve block 10 to tilt downward longitudinally. The sleeve block 10 slides along the inner wall of the inclined frame 8. The sleeve block 10 pulls the top of the linkage rope 11. The linkage rope 11 slides in the limiting gap between the two limiting sleeves 13. The linkage rope 11 slides along the inner wall of the inclined sleeve 19. The bottom end of the linkage rope 11 pulls the linkage block 15 to tilt upward laterally. The horizontal inclined bar 16 tilts upward laterally along the inner wall of the inclined sleeve 19. The second pressure sensor 17 drives the middle pressure block 4 to tilt upward laterally at the same tilt angle. The middle pressure block 4 conducts lateral compression detection on the middle of the corner of the package at the same tilt angle. In this way, different points and different angle positions of the corner of the package are simultaneously pressured and detected.

[0034] In this embodiment, as Figure 5 As shown, two positioning sleeves 21 are fixed on one side of the inclined sleeve 19. A positioning post 20 is fixed on the inner wall of the positioning sleeve 21. Both the positioning post 20 and the positioning sleeve 21 are slidably connected to the linkage rope 11. The linkage rope 11 slides on the outer wall of the positioning post 20, and at the same time slides between the two positioning sleeves 21, so as to realize the limiting and guiding operation of the linkage rope 11.

[0035] In this embodiment, as Figure 1 - Figure 7 As shown, the bottom pressure application component includes: a frame strip 22, fixed to the other side of the outer wall of the inclined pressure rod 2; a sliding rod 23 sliding on the inner wall of the frame strip 22; a guide rod 24 fixed to one end of the sliding rod 23; an inclined sleeve plate 25, installed on the outer wall of the guide rod 24; the inclined sleeve plate 25 is used to guide the movement of the guide rod 24; the inclined sleeve plate 25 is fixedly connected to the positioning plate 1; and a third pressure sensor 26, installed at the top of the guide rod 24; the third pressure sensor 26 is used to sense the compressive force of the guide rod 24; the sensing end of the third pressure sensor 26 is fixedly connected to the guide rod 24; and a longitudinal block 18 is fixed between the third pressure sensor 26 and the bottom pressure block 5. The frame strip 22 and the guide rod 24 are slidably connected, and the longitudinal block 18 is inclined.

[0036] In use, the inclined pressure rod 2 drives the frame strip 22 to move longitudinally downward at a specified tilt angle, while the sliding rod 23 slides along the inner wall of the frame strip 22. The guide pressure rod 24 moves longitudinally upward along the inner wall of the inclined sleeve plate 25 at a specified tilt angle. The guide pressure rod 24 drives the third pressure sensor 26 to move longitudinally upward at a specified tilt angle. The longitudinal block 18 drives the bottom pressure block 5 to move longitudinally upward at a specified tilt angle. The bottom pressure block 5 synchronously moves longitudinally upward at the bottom corner of the package to squeeze and detect, providing synchronous pressure detection at different corner points and angles.

[0037] In this embodiment, as Figure 1 - Figure 9 As shown, the power components include: a socket plate 27, fixed to the top of the inclined pressure rod 2; a guide frame 29 is installed on the outer wall of the socket plate 27 for guiding the movement of the socket plate 27; a geared motor 30 is installed at the top of the guide frame 29; a screw 28 is threadedly connected to the inner wall of the socket plate 27, and the geared motor 30 drives the screw 28 to rotate within the inner wall of the guide frame 29; a mounting frame 31 is installed on the lower inclined surface of the guide frame 29; both the guide frame 29 and the positioning plate 1 are fixedly connected to the mounting frame 31; a controller 32 is installed on one side of the mounting frame 31, and the controller 32 is electrically connected to the geared motor 30. An insert plate 33 is slidably connected to the inner wall of the positioning plate 1 for positioning the packaged goods.

[0038] When this technology is in use, the controller 32 starts the reduction motor 30, the reduction motor 30 drives the screw 28 to rotate, the screw 28 drives the sleeve plate 27 to move longitudinally downward under the action of the thread meshing force, the sleeve plate 27 drives the inclined pressure rod 2 to move longitudinally downward, providing the extrusion power.

[0039] The working principle of the packaging pressure resistance testing device of the present invention is as follows.

[0040] First, when positioning the object, the bolt is inserted into the hole on the positioning plate 1 to lock and fix the positioning plate 1. Then, the insert plate 33 is moved upward, separating the insert plate 33 from the positioning plate 1, thereby opening the gap inside the positioning plate 1. The packaging object in the new material is placed in the inner wall of the positioning plate 1, so that the positioning plate 1 positions the packaging object. Then, the insert plate 33 is moved downward and inserted into the inner wall of the positioning plate 1, so that the insert plate 33 positions the packaging object.

[0041] Secondly, when the present invention applies extrusion force, the positioning plate 1 supports the mounting bracket 31, which in turn supports the controller 32. The controller 32 starts the reduction motor 30, which drives the screw 28 to rotate. The screw 28 rotates on the inner wall of the guide frame 29. At the same time, the screw 28 drives the sleeve plate 27 to move longitudinally downward under the action of the thread meshing force. The sleeve plate 27 slides along the inner wall of the guide frame 29, and the sleeve plate 27 drives the inclined pressure rod 2 to move longitudinally downward.

[0042] Simultaneously, when the invention applies pressure from the top, the inclined pressure rod 2 drives the first pressure sensor 7 to tilt downwards longitudinally, the first pressure sensor 7 drives the top pressure block 3 to tilt downwards longitudinally, and the top pressure block 3 drives the two positioning blocks 6 to tilt downwards longitudinally. In this way, the top pressure block 3 and the two positioning blocks 6 all move downwards longitudinally according to a specified tilt angle. The top pressure block 3 and the two positioning blocks 6 simultaneously apply longitudinal downward pressure to the top corner of the packaging, and the inclined pressure rod 2 presses against the sensing end of the first pressure sensor 7, and the first pressure sensor 7 senses the applied pressure value.

[0043] Simultaneously, when the present invention applies pressure in the middle, when the inclined pressure rod 2 moves longitudinally downward, the inclined pressure rod 2 drives the inclined frame 8 to move longitudinally downward, the inclined frame 8 drives the inclined column 9 to move longitudinally downward, the inclined column 9 causes the sleeve block 10 to move longitudinally downward, and the sleeve block 10 slides along the inner wall of the inclined column 9. At the same time, the sleeve block 10 slides along the inner wall of the inclined frame 8. In this way, the sleeve block 10 pulls the top of the linkage rope 11, the linkage rope 11 slides on the outer wall of the arc block 12, and the linkage rope 11 slides in the limiting gap of the two limiting sleeves 13. The positioning plate 1 supports the inclined sleeve strip 19, the inclined sleeve strip 19 supports the support strip 14, the support strip 14 supports the two limiting sleeves 13, and provides stable support force to the two limiting sleeves 13. In this way, the linkage rope 11 slides along the inner wall of the inclined sleeve 19, and at the same time, the linkage rope 11 slides on the outer wall of the positioning post 20, and the linkage rope 11 slides between the two positioning sleeves 21. The bottom end of the linkage rope 11 pulls the linkage block 15 to move laterally and tilting upward. The linkage block 15 drives the horizontal inclined rod 16 to move laterally and tilting upward. The horizontal inclined rod 16 moves laterally and tilting upward along the inner wall of the inclined sleeve 19. The horizontal inclined rod 16 drives the second pressure sensor 17 to move laterally and tilting upward. The second pressure sensor 17 drives the middle pressure block 4 to move laterally and tilting upward synchronously according to the tilt angle. In this way, the middle pressure block 4 performs lateral compression detection on the middle corner of the package according to the tilt angle. The horizontal inclined rod 16 presses on the sensing end of the second pressure sensor 17, and the second pressure sensor 17 senses the applied pressure value.

[0044] Simultaneously, when the present invention applies pressure to the bottom, the inclined pressure rod 2 drives the frame strip 22 to move longitudinally downward at a specified tilt angle, the frame strip 22 drives the sliding rod 23 to move longitudinally upward at a specified tilt angle, and the sliding rod 23 slides along the inner wall of the frame strip 22 at the same time. The sliding rod 23 drives the pressure guide rod 24 to move longitudinally upward at a specified tilt angle, and the pressure guide rod 24 moves longitudinally upward along the inner wall of the inclined sleeve plate 25 at a specified tilt angle, thereby realizing the guiding operation of the pressure guide rod 24. The pressure guide rod 24 drives the third pressure sensor 26 to move longitudinally upward at a specified tilt angle, the third pressure sensor 26 drives the longitudinal block 18 to move longitudinally upward at a specified tilt angle, and the longitudinal block 18 drives the bottom pressure block 5 to move longitudinally upward at a specified tilt angle. In this way, the bottom pressure block 5 simultaneously moves longitudinally upward at the bottom corner of the packaged item to perform pressure detection, and the pressure guide rod 24 presses on the sensing end of the third pressure sensor 26, and the third pressure sensor 26 senses the applied pressure value.

[0045] Finally, during the recording process, the pressure values ​​sensed by the first pressure sensor 7, the second pressure sensor 17, and the third pressure sensor 26 can all be recorded. The system also checks for deformation at the top corner of the packaging, the middle corner of the packaging, and the bottom corner of the packaging.

[0046] All contents not described in detail in the specification are existing technologies known to those skilled in the art, and the model parameters of each electrical appliance are not specifically limited; conventional equipment can be used. Electrical control components not mentioned in this technical solution are not shown in the figures because they are existing technologies, and will not be described here.

[0047] The above description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A packaging pressure resistance testing device, comprising a positioning plate (1), characterized in that: An inclined pressure bar (2) is provided above the positioning plate (1); A top pressure component is installed at the bottom end of the inclined pressure bar (2), and a top pressure block (3) is provided on the top pressure component. A central pressure-applying component is provided on one side of the outer wall of the inclined pressure bar (2), and a central pressure block (4) is installed on the central pressure-applying component. A bottom pressure component is provided on the other side of the outer wall of the inclined pressure bar (2), and a bottom pressure block (5) is provided on the bottom pressure component. The power component is installed at the top of the diagonal compression bar (2); The power component drives the inclined pressure bar (2) to move longitudinally downward at the inclination angle. During this process, the inclined pressure bar (2) drives the top pressure component to move longitudinally downward synchronously at the inclination angle. The top pressure component drives the top pressure block (3) to move longitudinally downward at the inclination angle. The top pressure block (3) performs longitudinal downward compression detection on the top corner of the package. At the same time, the inclined pressure bar (2) drives the middle pressure component, so that the middle pressure component drives the middle pressure block (4) to perform transverse compression detection on the middle corner of the package at the inclination angle. At the same time, the inclined pressure bar (2) also drives the bottom pressure component to move longitudinally upward at the inclination angle. Then, the bottom pressure component drives the bottom pressure block (5) to perform longitudinal upward compression detection on the bottom corner of the package at the inclination angle.

2. The packaging pressure resistance testing device according to claim 1, characterized in that: The top pressure-applying component includes: Two positioning blocks (6) are fixed on the lower inclined surface of the top pressing block (3), and there is an included angle between the two positioning blocks (6); The first pressure sensor (7) is installed on the upper inclined surface of the top pressure block (3). The sensing end of the first pressure sensor (7) is fixedly connected to the bottom end of the inclined pressure rod (2). The first pressure sensor (7) is used to sense the extrusion force of the inclined pressure rod (2).

3. The packaging pressure resistance testing device according to claim 2, characterized in that: The vertical cross-sectional shape of both positioning blocks (6) is triangular, and the bottom end of the inclined pressure rod (2) is set parallel to the upper inclined surface of the top pressure block (3).

4. The packaging pressure resistance testing device according to claim 1, characterized in that: The central pressure-applying component includes: An inclined frame (8) is fixed to one side of the outer wall of the inclined pressure bar (2). An inclined column (9) is fixed to the inner wall of the inclined frame (8). A sleeve block (10) is slidably sleeved on the inclined column (9). The inclined frame (8) is used to guide the sleeve block (10) to slide. A linkage rope (11) is fixed on the upper inclined surface of the sleeve block (10). An arc-shaped block (12) is slidably provided on the inner wall of the linkage rope (11). Limit sleeves (13) are fixed at both ends of the outer wall of the arc-shaped block (12). A support bar (14) is fixed on one side of a limiting sleeve (13). A linkage block (15) is fixed at the bottom end of the linkage rope (11). A horizontal bar (16) is fixed on one side of the linkage block (15). A second pressure sensor (17) is installed at one end of the horizontal bar (16). The horizontal bar (16) and the sensing end of the second pressure sensor (17) are fixedly connected. The second pressure sensor (17) is fixedly connected to the middle pressure block (4). An oblique sleeve (19) is installed on the outer wall of the horizontal oblique rod (16). The oblique sleeve (19) is used to guide the horizontal oblique rod (16) to slide. The oblique sleeve (19) is fixedly connected to the positioning plate (1).

5. The packaging pressure resistance testing device according to claim 4, characterized in that: The support bar (14) is fixedly connected to the inclined sleeve bar (19), and the linkage rope (11) is used to move along the inside of the inclined sleeve bar (19).

6. The packaging pressure resistance testing device according to claim 4, characterized in that: Two positioning sleeves (21) are fixed on one side of the inclined sleeve (19). A positioning post (20) is fixed on the inner wall of the positioning sleeve (21). The positioning post (20) and the positioning sleeve (21) are slidably connected to the linkage rope (11).

7. The packaging pressure resistance testing device according to claim 1, characterized in that: The bottom pressure-applying component includes: A frame strip (22) is fixed on the other side of the outer wall of the inclined pressure bar (2). A sliding rod (23) slides on the inner wall of the frame strip (22). A guide rod (24) is fixed at one end of the sliding rod (23). An inclined sleeve (25) is installed on the outer wall of the pressure guide rod (24). The inclined sleeve (25) is used to guide the movement of the pressure guide rod (24). The inclined sleeve (25) is fixedly connected to the positioning plate (1). The third pressure sensor (26) is installed at the top of the pressure guide rod (24). The third pressure sensor (26) is used to sense the pressure of the pressure guide rod (24). The sensing end of the third pressure sensor (26) is fixedly connected to the pressure guide rod (24). A longitudinal block (18) is fixed between the third pressure sensor (26) and the bottom pressure block (5).

8. The packaging pressure resistance testing device according to claim 7, characterized in that: The frame strip (22) is slidably connected to the pressure guide rod (24), and the longitudinal block (18) is inclined.

9. The packaging pressure resistance testing device according to claim 1, characterized in that: The power component includes: A socket plate (27) is fixed to the top of the inclined pressure bar (2). A guide frame (29) is installed on the outer wall of the socket plate (27). The guide frame (29) is used to guide the movement of the socket plate (27). A geared motor (30) is installed at the top of the guide frame (29). A screw (28) is threadedly connected to the inner wall of the socket plate (27). The geared motor (30) is used to drive the screw (28) to rotate on the inner wall of the guide frame (29). Mounting bracket (31) is installed on the lower inclined surface of guide frame (29). Guide frame (29) and positioning plate (1) are both fixedly connected to mounting bracket (31). Controller (32) is installed on one side of mounting bracket (31). Controller (32) is electrically connected to geared motor (30).

10. The packaging pressure resistance testing device according to claim 1, characterized in that: The inner wall of the positioning plate (1) is slidably connected to an insert plate (33), which is used to position the packaged item.

Images