Illumination shooting detection device for new material detection

Abstract

The invention discloses an illumination shooting detection device for new material detection, and relates to the technical field of illumination detection, the illumination shooting detection device comprises a base, a detection assembly and a reset assembly, winding seats are arranged at the two ends of the top of the base, winding rollers are arranged in the winding seats, the outer ends of the winding rollers are wound with coiled materials, and the coiled materials are arranged on the detection assembly. And a detection assembly is arranged at the middle end of the top of the base. According to the method, the light shift and the shadow are shaken and displaced, so that the equipment can efficiently and intuitively judge whether the coiled material has loopholes and is too high in roughness, and in addition, all shadow images and light shift are on the surface of the coiled material; according to the device, all detection of actual damage and roughness of the surface of the coiled material can be realized only by using a single camera, efficient and visual detection can be realized under the condition of saving cost, in addition, light is reflected by the first mirror body and the second mirror body, the illumination intensity in the detection box can be improved, and the detection accuracy is improved. Therefore, the camera can shoot the surface of the coiled material more clearly.

Description

Technical Field

[0001] This invention relates to the field of lighting inspection technology, specifically to an lighting imaging inspection device for the inspection of new materials. Background Technology

[0002] In the research and application of new materials, the surface quality directly affects the material's performance and subsequent processing effects. Therefore, efficient and accurate surface defect detection of new roll materials has become a key aspect of production quality control. Currently, common surface inspection methods include visual inspection, contact measurement, and optical imaging inspection. Among these, optical imaging-based inspection technology is gradually becoming the mainstream method due to its advantages such as non-contact operation, high speed, and quantitative analysis.

[0003] However, existing optical inspection devices still have several shortcomings: on the one hand, in order to fully capture various defects on the material surface (such as holes, burrs, unevenness, etc.), it is often necessary to arrange multiple light sources and cameras to illuminate and photograph from different angles, resulting in a complex system structure and high cost; on the other hand, the cleanliness of the material surface directly affects the imaging quality, and existing equipment usually separates cleaning and inspection, resulting in interruptions in the inspection process and affecting overall efficiency.

[0004] Therefore, how to design a novel lighting imaging and inspection device that is compact, cost-controllable, and can simultaneously perform cleaning and inspection has become a technical problem that urgently needs to be solved in this field. Summary of the Invention

[0005] The purpose of this invention is to provide an illumination imaging detection device for detecting new materials, so as to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution: an illuminated imaging detection device for new material detection, comprising a base, a detection component, and a reset component. The base has take-up seats at both ends of its top, and a take-up roller is disposed inside the take-up seat. A roll of material is wound around the outer end of the take-up roller. The detection component is disposed at the top center of the base. The detection component includes a displacement seat, a ball bearing seat at the bottom outer end of the displacement seat, and a detection box at the top outer end of the displacement seat. First through slots are formed at both ends of the outer surface of the detection box. A first electric push rod is disposed on the bottom inner side of the detection box, and a first spotlight is disposed at the output end of the first electric push rod. A rotating shaft seat is disposed on the inner wall of the detection box, and a first mirror body is disposed at the bottom end of the rotating shaft seat. A first rotating shaft connecting seat is disposed at the rear of the first mirror body. A second electric push rod is disposed on the side of the first rotating shaft connecting seat away from the first mirror body. A third electric push rod is disposed at the outer end of the base. Furthermore, a lifting plate is installed at the output end of the third electric push rod, an electrically controlled rotating shaft is installed at the outer end of the lifting plate, and a second spotlight is installed at the outer end of the electrically controlled rotating shaft. A fourth electric push rod is installed on the inner side of the top of the base, and a second rotating shaft connecting seat is installed at the output end of the fourth electric push rod. A second mirror body is installed at the bottom end of the second rotating shaft connecting seat. A camera is installed inside the base. A sliding groove is opened on the inner side of the top of the base. A fixed seat is installed at the outer end of the top of the base, and a reset spring seat is installed between the fixed seat and the detection box.

[0007] Furthermore, the roll material passes through the inside of the detection box via the first through slot, and the first spotlight illuminates the surface of the roll material, while the second spotlight illuminates the side of the roll material.

[0008] Furthermore, the displacement seat and the ball seat are an integrated structure, and the ball seat slides through a groove.

[0009] Furthermore, a cleaning component is installed at the outer end of the detection box. The cleaning component includes a docking seat, and a cleaning box is installed at the outer end of the docking seat. The cleaning box has second through slots at both ends of its exterior. A suction pump is installed at the top outer end of the cleaning box. The suction pump has a suction port inside the cleaning box. A fifth electric actuator is installed at both ends of the cleaning box. A pressure plate is installed at the output end of the fifth electric actuator. An air supply pipe is connected to the outer end of the suction pump. A pressurization box is connected to the end of the air supply pipe. A dust filter seat is installed at the middle end of the air supply pipe.

[0010] Furthermore, the testing box is fixedly connected to the cleaning box via a docking seat, and the roll material passes through the inside of the cleaning box via the second through groove.

[0011] Furthermore, the fifth electric push rod drives the pressure plate to move down and fit against the roll material, and the roll material and the suction port form a fully enclosed structure.

[0012] Furthermore, the suction port is connected to the gas delivery pipe via a suction pump, and the gas delivery pipe is connected to the pressurization box.

[0013] Furthermore, a reset assembly is installed at the outer end of the fixed base. The reset assembly includes a reset seat, a piston rod is installed inside the reset seat, and a piston seat is installed at the front end of the piston rod. An air inlet groove is opened inside the fixed base. A connecting pipe is connected between the piston rod and the pressurization box, and an electrically controlled valve is installed at the middle end of the connecting pipe. An exhaust groove is opened inside the piston rod, and an electrically controlled exhaust valve is opened at the bottom outer end of the reset seat.

[0014] Furthermore, the pressurization box is connected to the exhaust channel via a connecting pipe, and the exhaust channel is connected to the interior of the reset seat.

[0015] Furthermore, the piston rod is fixedly connected to the detection box, and the reset seat is fixedly connected to the fixed seat.

[0016] This invention provides an illumination imaging detection device for detecting new materials, which has the following beneficial effects: 1. When the first spotlight of this invention is working, it can emit light onto the roll material. If there are holes on the surface of the roll material, under the illumination of the first spotlight and the principle of pinhole imaging, the light emitted by the first spotlight is reflected by the second mirror and can be displayed on the top surface of the roll material. The first electric push rod can move the first spotlight up and down by reciprocating, which will change the size of the light spot displayed on the surface of the roll material. The fourth electric push rod on one side of the second mirror can tilt the second mirror through the second rotating shaft connector, which will cause the light spot to shake. The camera is facing the top surface of the roll material to take pictures. If there is damage on the surface of the roll material, the camera can clearly observe the change.

[0017] 2. This invention utilizes a second spotlight to emit light from the cut surface of the roll material. If burrs or unevenness exist on the surface of the roll material, under the illumination of this light source, the burrs and unevenness will cast elongated shadows. The reciprocating motion of the third electric actuator allows the second spotlight to be adjusted vertically, causing the shadow cast by the second spotlight to be distorted due to the adjustment of the light source. The position of the light source can also be adjusted by rotating the second spotlight via an electrically controlled rotating shaft. The light emitted by the second spotlight, reflected by the first mirror, can illuminate the roll material from the other end, ensuring that burrs and unevenness at both ends of the roll material are illuminated. Furthermore, the second electric actuator pushes the first rotating shaft connector, causing the first mirror to rotate via the rotating shaft. This allows light to emanate from the first mirror... The position of the reflected light source can be adjusted to achieve deformation of the shadows cast by burrs and uneven surfaces. Since the light intensity reflected by the first mirror is weaker than that directly illuminated by the second spotlight, the overlapping shadows generated from both ends can still be clearly distinguished. Through the above operations, the equipment can efficiently and intuitively determine whether there are defects or excessive roughness in the roll material. In addition, all shadow imaging and light spots are on the surface of the roll material, which means that the equipment only needs a single camera to realize the complete detection of the actual damage and roughness of the roll material surface. This can achieve efficient and intuitive detection while saving costs. Furthermore, the light reflected by the first and second mirrors can increase the light intensity inside the detection box, which allows the camera to capture clearer images of the roll material surface.

[0018] 3. During the displacement of the roll material, the fifth electric push rod drives the pressure plate downward, which can lock and fix the roll material. This allows the cleaning box to move together with the roll material during displacement. Since the cleaning box is fixed to the detection box through the docking seat, the detection box can achieve synchronous displacement with the roll material through the sliding of the ball bearing seat on the bottom displacement seat in the slide groove. During the displacement, the detection box can drive the return spring seat at the outer end of the fixed seat to stretch. Through this design, the equipment can clean and photograph the roll material during its displacement. When the test section is completed, the take-up roller only needs to pause slightly. At this time, the fifth electric push rod drives the pressure plate to move up and reset. The test box and cleaning box will then return to their original positions due to the elastic reset of the reset spring seat. At this time, the section of the roll material that has been cleaned will be located in the test box, and the subsequent section of the roll material that has not been cleaned will enter the cleaning box. Then, the fifth electric push rod drives the pressure plate to move down again and fix it to the roll material. The take-up roller rotates again, which can realize continuous testing of the roll material. By making the displacement, cleaning and imaging of the roll material all take place at the same time, the testing time of the equipment can be greatly saved, thereby improving the testing efficiency of the equipment.

[0019] 4. During displacement detection, the detection box of this invention can drive the piston rod to move synchronously. At this time, the electrically controlled exhaust valve is in the open state, which allows the air in the reset seat to be discharged through the piston seat when the piston rod moves. The air drawn out by the suction pump can enter the pressurization box through the one-way valve air supply pipe. The dust filter seat installed in the middle of the one-way valve air supply pipe can filter the suction dust and dirt, preventing dust and dirt from entering the pressurization box. After the detection box completes the detection, the electrically controlled valve in the middle of the connecting pipe is opened, and the electrically controlled exhaust valve is closed at the same time. This allows the high-pressure gas inside the pressurization box to enter through the connecting pipe and the exhaust groove. Inside the reset seat, because the reset seat is connected to the outside through the air inlet groove, the right end of the piston seat is under normal pressure and the left end is under high pressure. The high-pressure gas will push the piston seat to the right, thereby generating a rightward reset force on the detection box. In actual use, the reset spring seat often fails to rebound due to insufficient initial kinetic energy. Through the above design, initial kinetic energy can be applied to the reset spring seat, thereby assisting the reset spring seat to rebound. This can improve the operational stability of the equipment. The rebound force is achieved through the ash removal process of the suction pump, which eliminates the need to add additional reset components to the equipment. Attached Figure Description

[0020] Figure 1 Figure A shows the overall three-dimensional structure of an illumination imaging detection device for detecting new materials according to the present invention; Figure 2 Figure B shows the overall three-dimensional structure of an illumination imaging detection device for new material detection according to the present invention; Figure 3 Figure C shows the overall three-dimensional structure of an illumination imaging detection device for detecting new materials according to the present invention; Figure 4 Figure A shows the internal structure of the detection box of an illumination imaging detection device for detecting new materials according to the present invention. Figure 5 Figure B shows a schematic diagram of the detection box structure of an illumination imaging detection device for detecting new materials according to the present invention; Figure 6 This is a schematic diagram of the reset component structure of an illumination imaging detection device for detecting new materials according to the present invention; Figure 7 This is a schematic cross-sectional view of the overall structure of an illumination imaging detection device for detecting new materials according to the present invention.

[0021] In the diagram: 1. Base; 2. Rewinding seat; 3. Rewinding roller; 4. Roll material; 5. Detection assembly; 501. Displacement seat; 502. Ball bearing seat; 503. Detection box; 504. First through slot; 505. First electric actuator; 506. First spotlight; 507. Rotary shaft seat; 508. First mirror body; 509. First rotary shaft connecting seat; 510. Second electric actuator; 511. Third electric actuator; 512. Lifting plate; 513. Electrically controlled rotary shaft; 514. Second spotlight; 515. Fourth electric actuator; 516. Second rotary shaft connecting seat; 517. Second mirror body; 518. 6. Camera; 7. Slide rail; 8. Fixing seat; 9. Reset spring seat; 10. Cleaning assembly; 11. Docking seat; 12. Cleaning box; 13. Second through groove; 14. Suction pump; 15. Suction port; 16. Fifth electric push rod; 17. Pressure plate; 18. Air supply pipe; 19. Pressurization box; 10. Filter seat; 10. Reset assembly; 1001. Reset seat; 1002. Piston rod; 1003. Piston seat; 1004. Air inlet groove; 1005. Connecting pipe; 1006. Electric control valve; 1007. Exhaust groove; 1008. Electric control exhaust valve. Detailed Implementation

[0022] Please see Figures 1 to 7This invention provides a technical solution: an illumination imaging detection device for new material detection, comprising a base 1, a detection component 5, and a reset component 10. A take-up seat 2 is disposed at both ends of the top of the base 1, and a take-up roller 3 is disposed inside the take-up seat 2. A roll of material 4 is wound around the outer end of the take-up roller 3. The detection component 5 is disposed at the middle of the top of the base 1. The detection component 5 includes a displacement seat 501, a ball bearing seat 502 is disposed at the bottom outer end of the displacement seat 501, and a detection box 503 is disposed at the top outer end of the displacement seat 501. The outer end of the test box 503 has a first through groove 504. A first electric push rod 505 is installed on the inner bottom of the test box 503. A first spotlight 506 is installed at the output end of the first electric push rod 505. A rotating shaft seat 507 is installed on the inner wall of the test box 503. A first mirror body 508 is installed at the bottom end of the rotating shaft seat 507. A first rotating shaft connecting seat 509 is installed at the rear of the first mirror body 508. A second electric push rod 510 is installed on the side of the first rotating shaft connecting seat 509 away from the first mirror body 508. A third electric push rod 511 is installed at the outer end of the base 1. Furthermore, a lifting plate 512 is installed at the output end of the third electric actuator 511, an electrically controlled rotating shaft 513 is installed at the outer end of the lifting plate 512, and a second spotlight 514 is installed at the outer end of the electrically controlled rotating shaft 513. A fourth electric actuator 515 is installed on the inner side of the top of the base 1, and a second rotating shaft connector 516 is installed at the output end of the fourth electric actuator 515. A second mirror body 517 is installed at the bottom end of the second rotating shaft connector 516. A camera 51 is installed inside the base 1. 8. A sliding groove 6 is provided on the inner side of the top of the base 1. A fixed seat 7 is installed at the outer end of the top of the base 1. A reset spring seat 8 is installed between the fixed seat 7 and the detection box 503. The roll material 4 passes through the inside of the detection box 503 through the first through groove 504. The first spotlight 506 irradiates the surface of the roll material 4, and the second spotlight 514 irradiates the side of the roll material 4. The displacement seat 501 and the ball seat 502 are integrated structures, and the ball seat 502 slides through the sliding groove 6.

[0023] The specific operation is as follows: The operator fixes the roll 4 to be inspected onto the take-up roller 3 inside the take-up seat 2 at the top right side of the base 1, and then pulls the roll 4 so that it can be unwound from the take-up roller 3. The unwound roll 4 can pass through the second through slot 903 into the cleaning box 902, and through the first through slot 504 into the inspection box 503. This allows the roll 4 to be fixed onto the take-up roller 3 inside the take-up seat 2 at the top left side of the base 1. The take-up roller 3 is driven by a servo motor to achieve the winding of the roll 4. When the roll 4 is inside the inspection box 503, the first spotlight 506 works and can shine light onto the roll 4. If there are holes on the surface of the roll 4, under the illumination of the first spotlight 506 and the principle of pinhole imaging, the light shone by the first spotlight 506 will... Light reflected by the second mirror 517 appears on the top surface of the roll 4. The reciprocating motion of the first electric actuator 505 causes the first spotlight 506 to move vertically, changing the size of the light spot on the roll 4 surface. The operation of the fourth electric actuator 515 on one side of the second mirror 517 tilts the second mirror 517 via the second rotating shaft connector 516, causing the light spot to sway. The camera 518 then focuses on the top surface of the roll 4, clearly observing any damage to the surface. Furthermore, the second spotlight 514 emits light from the cut surface of the roll 4. If burrs or unevenness are present on the surface of the roll 4, this light will illuminate them. The unevenness will create elongated shadows under side lighting. The reciprocating motion of the third electric actuator 511 adjusts the position of the second spotlight 514, causing the shadow cast by the second spotlight 514 to deform due to the adjustment of the light source. The rotation of the second spotlight 514 via the electrically controlled rotating shaft 513 also adjusts the position of the light source. The light emitted by the second spotlight 514, reflected by the first mirror 508, can illuminate the other end of the roll 4, ensuring that burrs and unevenness at both ends of the roll 4 are illuminated. Furthermore, the second electric actuator 510 pushes the first rotating shaft connector 509, causing the first mirror 508 to rotate via the rotating shaft seat 507. This allows the reflected light from the first mirror 508 to... Adjustments are made to deform the shadows cast by burrs and uneven surfaces. Since the light intensity reflected by the first mirror 508 is weaker than that directly illuminated by the second spotlight 514, overlapping shadows from both ends can still be clearly distinguished. Through these operations, the equipment can efficiently and intuitively determine whether the roll material 4 has defects or excessive roughness. Furthermore, all shadow imaging and light spots are on the surface of the roll material 4, allowing the equipment to perform complete detection of surface damage and roughness using only a single camera 518. This achieves efficient and intuitive detection while saving costs. Additionally, the reflection of light by the first mirror 508 and the second mirror 517 increases the illumination intensity inside the inspection box 503.This allows camera 518 to capture clearer images of the surface of the roll material 4.

[0024] Please see Figures 1 to 7 The outer end of the testing box 503 is equipped with a cleaning component 9, which includes a docking seat 901. A cleaning box 902 is mounted on the outer end of the docking seat 901, and the two outer ends of the cleaning box 902 are provided with second through slots 903. A suction pump 904 is mounted on the top outer end of the cleaning box 902. The suction pump 904 is located inside the cleaning box 902 and has a suction port 905. The two inner ends of the cleaning box 902 are equipped with fifth electric push rods 906, and the output end of the fifth electric push rods 906 is equipped with a pressure... Plate 907 and suction pump 904 are connected to a one-way valve air supply pipe 908 at their outer ends. The end of the one-way valve air supply pipe 908 is connected to a pressurization box 909. A filter seat 910 is installed in the middle of the one-way valve air supply pipe 908. The detection box 503 is fixedly connected to the cleaning box 902 through the docking seat 901. The roll material 4 passes through the inside of the cleaning box 902 through the second through groove 903. The fifth electric push rod 906 drives the pressure plate 907 to move down and fit against the roll material 4. The roll material 4 and the suction port 905 are fully wrapped. The enclosure structure includes a suction port 905 connected to a one-way valve air supply pipe 908 via a suction pump 904, and the one-way valve air supply pipe 908 connected to a pressurization box 909. A reset assembly 10 is mounted on the outer end of the fixed base 7. The reset assembly 10 includes a reset seat 1001, inside which a piston rod 1002 is mounted, and at the front end of the piston rod 1002 is a piston seat 1003. An air inlet groove 1004 is provided inside the fixed base 7. The piston rod 1002 is connected to the pressurization box 909. A connecting pipe 1005 is connected, and an electrically controlled valve 1006 is installed at the middle end of the connecting pipe 1005. An exhaust groove 1007 is opened inside the piston rod 1002. An electrically controlled exhaust valve 1008 is opened at the bottom outer end of the reset seat 1001. The pressure box 909 is connected to the exhaust groove 1007 through the connecting pipe 1005, and the exhaust groove 1007 is connected to the inside of the reset seat 1001. The piston rod 1002 is fixedly connected to the detection box 503, and the reset seat 1001 is fixedly connected to the fixed seat 7. The specific operation is as follows: The suction pump 904 generates suction at the suction port 905, which is arranged in a ring. When the roll material 4 passes through the cleaning box 902, the suction port 905 surrounds the outer end of the roll material 4. This operation ensures that the equipment cleans the roll material 4 before it is inspected, preventing the cleanliness of the roll material 4 from affecting the inspection accuracy. During the displacement of the roll material 4, the fifth electric push rod 906 drives the pressure plate 907 to move downwards, locking and fixing the roll material 4. This allows the cleaning box 902 to move along with the roll material 4 during displacement. Because the cleaning box 902 is fixed to the inspection box 503 via the docking seat 901, the inspection box 503 can be moved by the ball bearings on the bottom displacement seat 501. The sliding of seat 502 within the groove 6 achieves synchronous displacement with the roll material 4. During displacement, the detection box 503 can elongate the reset spring seat 8 at the outer end of the fixed seat 7. Through this design, the equipment can clean and photograph the roll material 4 during its displacement. When the detection section of the roll material 4 completes the detection, the take-up roller 3 only needs to pause slightly. At this time, the fifth electric push rod 906 drives the pressure plate 907 to move upward and reset. The detection box 503 and the cleaning box 902 will return to their original positions due to the elastic reset of the reset spring seat 8. At this time, the section of the roll material 4 that has completed adsorption and cleaning will be located in the detection box 503, and the subsequent section of the roll material 4 that has not been cleaned will enter the cleaning box 902. At this time, the fifth electric push rod 906 again drives the pressure plate 907 to move downward and fix the roll material 4. Once the take-up roller 3 rotates again, continuous inspection of the roll 4 can be achieved. By enabling the displacement, cleaning, and imaging of the roll 4 to be performed simultaneously, the inspection time of the equipment can be greatly saved, thereby improving the inspection efficiency of the equipment. During the displacement inspection process, the inspection box 503 can drive the piston rod 1002 to move synchronously. At this time, the electrically controlled exhaust valve 1008 is in the open state, which allows the piston rod 1002 to discharge the air in the reset seat 1001 through the piston seat 1003 when it moves. The air drawn out by the suction pump 904 can enter the pressurization box 909 through the one-way valve air supply pipe 908. The dust filter seat 910 installed in the middle of the one-way valve air supply pipe 908 can filter the suctioned dust and dirt, preventing dust and dirt from entering the pressurization box 909. Inside the pressure chamber 909, after the testing chamber 503 completes the test, the electrically controlled valve 1006 at the middle of the connecting pipe 1005 opens, while the electrically controlled exhaust valve 1008 closes. This allows the high-pressure gas inside the pressure chamber 909 to enter the reset seat 1001 through the connecting pipe 1005 and the exhaust groove 1007. Because the reset seat 1001 is connected to the outside through the air inlet groove 1004, the right end of the piston seat 1003 is at normal pressure, while the left end is at high pressure. The high-pressure gas pushes the piston seat 1003 to the right, thereby generating a rightward reset force on the testing chamber 503. In actual use, the reset spring seat 8 often experiences insufficient initial kinetic energy and fails to spring back. Through the above design, initial kinetic energy can be applied to the reset spring seat 8.This assists the reset spring seat 8 in rebounding, which improves the operational stability of the equipment. This rebound force is achieved through the ash removal process of the suction pump 904, eliminating the need for additional reset components.

[0025] In summary, this illumination and imaging inspection device for new material testing, when in use, firstly, the operator fixes the roll 4 to be inspected onto the take-up roller 3 inside the take-up seat 2 at the top right side of the base 1. Then, pulling the roll 4 allows it to unwind from the take-up roller 3. The unwound roll 4 can pass through the second through slot 903 into the cleaning box 902 and through the first through slot 504 into the inspection box 503. This allows the roll 4 to be fixed onto the take-up roller 3 inside the take-up seat 2 at the top left side of the base 1. The take-up roller 3 is driven by a servo motor to achieve the winding of the roll 4. When the roll 4 is inside the inspection box 503, the first spotlight 506 works, shining light onto the roll 4. If the roll... 4. If there is a hole on the surface, under the illumination of the first spotlight 506 and the principle of pinhole imaging, the light shone by the first spotlight 506 is reflected by the second mirror 517 and can be displayed on the top surface of the roll 4. The first electric push rod 505 can move the first spotlight 506 up and down by working back and forth, which will change the size of the light spot displayed on the surface of the roll 4. The fourth electric push rod 515 on one side of the second mirror 517 can tilt the second mirror 517 through the second rotating shaft connector 516, which will cause the light spot to shake. The camera 518 is facing the top surface of the roll 4 to take pictures. If there is damage on the surface of the roll 4, the camera 518 can clearly observe the change. Then, by operating the second spotlight 514, light can be emitted from the cut surface of the roll 4 towards the roll 4. If there are burrs or unevenness on the surface of the roll 4, under the illumination of this light source, the burrs and unevenness will appear as elongated shadows under the side light source. By reciprocating the operation of the third electric push rod 511, the second spotlight 514 can be moved up and down, which causes the shadow emitted by the second spotlight 514 to be deformed due to the adjustment of the light source. The position of the light source can also be adjusted by rotating the second spotlight 514 through the electric control shaft 513. The light emitted by the second spotlight 514, after being reflected by the first mirror 508, can shine on the roll 4 from the other end of the roll 4, so that the burrs and unevenness at both ends of the roll 4 can be illuminated. By pushing the first shaft connecting seat 509 through the second electric push rod 510, the first mirror 508 can be rotated through the shaft seat 507, which makes The position of the reflected light source of the first mirror 508 can be adjusted to achieve the deformation of the shadows irradiated by burrs and unevenness. Since the light intensity reflected by the first mirror 508 is weaker than that directly irradiated by the second spotlight 514, the overlapping shadows generated from both ends can still be clearly distinguished. Through the above operations, the equipment can efficiently and intuitively determine whether there are defects or excessive roughness in the roll material 4. In addition, all shadow imaging and light spots are on the surface of the roll material 4, which means that the equipment only needs to use a single camera 518 to realize the complete detection of the actual damage and roughness of the surface of the roll material 4. This can achieve efficient and intuitive detection while saving costs. In addition, the light reflected by the first mirror 508 and the second mirror 517 can increase the light intensity inside the detection box 503, which allows the camera 518 to capture a clearer image of the surface of the roll material 4. Next, the suction pump 904 operates, generating suction force at the suction port 905. The suction port 905 is arranged in a ring. When the roll material 4 passes through the cleaning box 902, the suction port 905 surrounds the outer end of the roll material 4. Through this operation, the equipment can clean the roll material 4 before it is photographed and inspected, avoiding the impact of the roll material 4's own cleanliness on the photographing accuracy. During the displacement of the roll material 4, the fifth electric push rod 906 drives the pressure plate 907 to move down, which can lock and fix the roll material 4, thus ensuring the roll material... 4. During the displacement process, the cleaning box 902 can be moved together. Since the cleaning box 902 is fixed to the detection box 503 through the docking seat 901, the detection box 503 can move synchronously with the roll material 4 through the sliding of the ball seat 502 on the bottom displacement seat 501 in the slide groove 6. During the displacement process, the detection box 503 can drive the reset spring seat 8 at the outer end of the fixed seat 7 to be stretched. Through this design, the equipment can clean and photograph the roll material 4 during the displacement process. Subsequently, when the inspection of the section of roll 4 is completed, the take-up roller 3 only needs to pause slightly. At this time, the fifth electric push rod 906 drives the pressure plate 907 to move upward and reset. The inspection box 503 and the cleaning box 902 will return to their original positions due to the elastic reset of the reset spring seat 8. At this time, the section of roll 4 that has completed adsorption and cleaning will be located in the inspection box 503, and the subsequent section of roll 4 that has not been cleaned will enter the cleaning box 902. At this time, the fifth electric push rod 906 drives the pressure plate 907 to move downward and fix it to the roll 4. The take-up roller 3 rotates again, which can realize the continuous inspection of roll 4. By making the displacement, cleaning and imaging of roll 4 all take place at the same time, the inspection time of the equipment can be greatly saved, thereby improving the inspection efficiency of the equipment. During the final displacement detection process, the detection chamber 503 drives the piston rod 1002 to move synchronously. At this time, the electrically controlled exhaust valve 1008 is open, allowing the piston rod 1002 to expel air from the reset seat 1001 through the piston seat 1003 when it moves. The air drawn out by the suction pump 904 can enter the pressurization chamber 909 through the one-way valve air supply pipe 908. The dust filter seat 910 installed in the middle of the one-way valve air supply pipe 908 can filter the suctioned dust and dirt, preventing dust and dirt from entering the pressurization chamber 909. After the detection chamber 503 completes the detection, the electrically controlled valve 1006 in the middle of the through pipe 1005 is opened, and the electrically controlled exhaust valve 1008 is closed, allowing the high-pressure gas inside the pressurization chamber 909 to pass through. The gas enters the reset seat 1001 through the through pipe 1005 and the exhaust groove 1007. Since the reset seat 1001 is connected to the outside through the air inlet groove 1004, the right end of the piston seat 1003 is in a normal pressure state and the left end is in a high pressure state. The high pressure gas will push the piston seat 1003 to the right, thereby generating a rightward reset force on the detection box 503. In actual use, the reset spring seat 8 often has insufficient initial kinetic energy and cannot rebound. Through the above design, the initial kinetic energy can be applied to the reset spring seat 8, thereby assisting the reset spring seat 8 to rebound. This can improve the operating stability of the equipment. The rebound force is achieved by the ash discharge process of the suction pump 904, which makes it unnecessary to add an additional reset component to the equipment.

[0026] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0027] This article uses specific examples to illustrate the principles and implementation methods of the present invention. The above examples are only for the purpose of helping to understand the method and core ideas of the present invention. The above descriptions are only preferred embodiments of the present invention. It should be noted that due to the limitations of textual expression, and the objective existence of infinite specific structures, those skilled in the art can make several improvements, modifications, or changes without departing from the principles of the present invention, and can also combine the above technical features in an appropriate manner. These improvements, modifications, changes, or combinations, or the direct application of the inventive concept and technical solution to other situations without modification, should all be considered within the scope of protection of the present invention.

Claims

1. An illumination imaging detection device for detecting new materials, characterized in that, The system includes a base (1), a detection component (5), and a reset component (10). A take-up seat (2) is positioned at both ends of the top of the base (1), and a take-up roller (3) is positioned inside the take-up seat (2). A roll of material (4) is wound around the outer end of the take-up roller (3). A detection component (5) is positioned at the middle of the top of the base (1). The detection component (5) includes a displacement seat (501). A ball bearing seat (502) is positioned at the bottom outer end of the displacement seat (501). A detection box (503) is positioned at the top outer end of the displacement seat (501). First through slots are provided at both ends of the outer surface of the detection box (503). 504), a first electric push rod (505) is installed on the inner bottom of the detection box (503), a first spotlight (506) is installed at the output end of the first electric push rod (505), a rotating shaft seat (507) is installed on the inner wall of the detection box (503), and a first mirror body (508) is installed at the bottom end of the rotating shaft seat (507). A first rotating shaft connecting seat (509) is installed at the rear of the first mirror body (508), a second electric push rod (510) is installed on the side of the first rotating shaft connecting seat (509) away from the first mirror body (508), and a third electric push rod (511) is installed at the outer end of the base (1). Furthermore, a lifting plate (512) is installed at the output end of the third electric push rod (511), an electric control shaft (513) is installed at the outer end of the lifting plate (512), and a second spotlight (514) is installed at the outer end of the electric control shaft (513). A fourth electric push rod (515) is installed on the inner side of the top of the base (1), and a second shaft connecting seat (516) is installed at the output end of the fourth electric push rod (515). A second mirror body (517) is installed at the bottom end of the second shaft connecting seat (516). A camera (518) is installed inside the base (1). A sliding groove (6) is opened on the inner side of the top of the base (1). A fixed seat (7) is installed at the outer end of the top of the base (1), and a reset spring seat (8) is installed between the fixed seat (7) and the detection box (503).

2. The illumination imaging detection device for new material detection according to claim 1, characterized in that, The roll (4) passes through the inside of the detection box (503) through the first through slot (504), and the first spotlight (506) irradiates the surface of the roll (4), while the second spotlight (514) irradiates the side of the roll (4).

3. The illumination imaging detection device for new material detection according to claim 1, characterized in that, The displacement seat (501) and the ball seat (502) are an integrated structure, and the ball seat (502) slides through the groove (6).

4. The illumination imaging detection device for new material detection according to claim 1, characterized in that, The outer end of the detection box (503) is provided with a cleaning component (9). The cleaning component (9) includes a docking seat (901). The outer end of the docking seat (901) is provided with a cleaning box (902). The two outer ends of the cleaning box (902) are provided with second through slots (903). The top outer end of the cleaning box (902) is provided with a suction pump (904). The suction pump (904) is located inside the cleaning box (902) and is provided with a suction port (905). The two inner ends of the cleaning box (902) are provided with a fifth electric push rod (906). The output end of the fifth electric push rod (906) is provided with a pressure plate (907). The outer end of the suction pump (904) is connected to a gas supply pipe (908). The end of the gas supply pipe (908) is connected to a pressurization box (909). The middle end of the gas supply pipe (908) is provided with a dust filter seat (910).

5. The illumination imaging detection device for new material detection according to claim 4, characterized in that, The testing box (503) is fixedly connected to the cleaning box (902) via the docking seat (901), and the roll material (4) passes through the inside of the cleaning box (902) through the second through groove (903).

6. The illumination imaging detection device for detecting new materials according to claim 4, characterized in that, The fifth electric push rod (906) drives the pressure plate (907) to move down and fit with the roll material (4), and the roll material (4) and the suction port (905) form a fully enclosed structure.

7. The illumination imaging detection device for detecting new materials according to claim 4, characterized in that, The suction port (905) is connected to the gas supply pipe (908) via the suction pump (904), and the gas supply pipe (908) is connected to the pressurization box (909).

8. The illumination imaging detection device for detecting new materials according to claim 4, characterized in that, A reset assembly (10) is installed at the outer end of the fixed base (7). The reset assembly (10) includes a reset seat (1001). A piston rod (1002) is installed inside the reset seat (1001), and a piston seat (1003) is installed at the front end of the piston rod (1002). An air inlet groove (1004) is opened inside the fixed base (7). A connecting pipe (1005) is connected between the piston rod (1002) and the pressurization box (909). An electric control valve (1006) is installed at the middle end of the connecting pipe (1005). An exhaust groove (1007) is opened inside the piston rod (1002). An electric control exhaust valve (1008) is opened at the bottom outer end of the reset base (1001).

9. The illumination imaging detection device for detecting new materials according to claim 8, characterized in that, The pressurization box (909) is connected to the exhaust groove (1007) through the connecting pipe (1005), and the exhaust groove (1007) is connected to the interior of the reset seat (1001).

10. The illumination imaging detection device for detecting new materials according to claim 8, characterized in that, The piston rod (1002) is fixedly connected to the detection box (503), and the reset seat (1001) is fixedly connected to the fixed seat (7).

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