Defect detection device for square ham
By designing a comprehensive defect detection device for square ham, the problem of relying on artificial naked eye detection in the prior art is solved, efficient and accurate defect detection is achieved, and food safety is improved.
Patent Information
- Application Number
- CN202311548883.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2023-11-20
- Publication Date
- 2025-05-20
AI Technical Summary
In the prior art, the defect detection of the counterpart ham mainly relies on artificial naked eyes, and small defects cannot be effectively identified, resulting in food safety problems.
设计了一种方型火腿的缺陷检测装置,包括水平、旋转检测机构、一级翻转夹持检测机构、二级输送检测机构、二级翻转夹持检测机构和剔除机构,实现方型火腿的全方位检测,代替人工检测。
The device can effectively identify multiple facial defects of square ham, improve detection efficiency, reduce manual labor intensity, and ensure food safety.
Smart Images

Figure CN120020554A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of food detection, and more specifically to a defect detection device for square ham. Background Art
[0002] With the rapid development of society and the continuous improvement of people's living standards, food safety issues have attracted much attention. Once quality problems occur in food, if not effectively controlled in a timely manner, it will endanger people's physical health. To provide reliable guarantees for food safety, it is necessary to increase the intensity of food detection, and through the application of various advanced food detection technologies, to ensure the safety of food and fundamentally solve food safety problems.
[0003] Currently, the detection equipment for high-temperature ham sausage is relatively mature, and the detection of conventional products is relatively comprehensive, which has replaced human labor, greatly improved production efficiency, and reduced the defective product rate in the market. However, for the defect detection of square ham in the domestic market, all rely on manual visual inspection for rough detection, and only relatively large defective products can be detected. Small defects and other problems cannot be identified by the naked eye, and if they flow into the market, it will cause food safety problems. Therefore, there is an urgent need for a device for multi-faceted defect detection of square ham. Summary of the Invention
[0004] In view of the above problems, the purpose of the present invention is to provide a defect detection device for square ham, which can arrange and detect square hams one by one, detect the six faces of square hams in sequence, and can promptly remove defective products. The defect detection device can operate independently or be connected to a production line. The defect detection device can sort, convey, clamp and flip, convey again, clamp and flip again, and remove square hams to ensure comprehensive detection of square hams, replace manual detection, reduce manual labor intensity, and improve production efficiency.
[0005] The purpose of the present invention is achieved through the following technical solutions:
[0006] The present invention provides a defect detection device for square ham, which includes a main frame of the defect detection device and a horizontal and rotary detection mechanism, a primary flipping and clamping detection mechanism, a secondary conveying and detection mechanism, a secondary flipping and clamping detection mechanism, and a rejection mechanism that are sequentially arranged on the main frame of the defect detection device. Among them, the horizontal and rotary detection mechanism is used to detect defects on the top surface and left and right side surfaces of the square ham; the flipping and clamping detection mechanism is used to detect defects on the front side surface of the square ham and flip it over; there are a loading and unloading clamping mechanism and a transfer conveying mechanism arranged vertically between the flipping and clamping detection mechanism and the secondary conveying and detection mechanism, and the loading and unloading clamping mechanism and the transfer conveying mechanism cooperate to smoothly transfer the square ham onto the secondary conveying and detection mechanism; the secondary conveying and detection mechanism is used to detect defects on the rear side surface of the square ham; the secondary flipping and clamping detection mechanism is used to detect defects on the bottom surface of the square ham,
[0007] and the rejection mechanism is used to reject the unqualified square ham.
[0008] The horizontal and rotary detection mechanism includes a main frame of the detection mechanism, a rotary electrode detection mechanism, a detection conveying mechanism, a pressing and clamping mechanism, a horizontal electrode detection mechanism, and an image detection mechanism. Among them, the main frame of the detection mechanism is arranged on the main frame of the defect detection device, and the detection conveying mechanism is arranged on the main frame of the detection mechanism for conveying the square ham; the image detection mechanism, the horizontal electrode detection mechanism, the rotary electrode detection mechanism, and the pressing and clamping mechanism are sequentially arranged on the main frame of the detection mechanism along the conveying direction of the detection conveying mechanism. The image detection mechanism Ⅰ is used to collect the image information of the square ham; the horizontal electrode detection mechanism is used to detect defects on the top surface of the square ham; the rotary electrode detection mechanism is used to detect defects on the left and right side surfaces of the square ham; the pressing and clamping mechanism is located at the end of the detection conveying mechanism and cooperates with the detection conveying mechanism to clamp and convey the square ham.
[0009] The primary flipping and clamping detection mechanism includes a base of the flipping and clamping mechanism, a driving motor of the flipping and clamping mechanism, a flipping driving assembly, an image detection mechanism Ⅱ, a flipping electrode detection mechanism, and a discharging clamping mechanism. Among them, the base of the flipping and clamping mechanism is arranged on the main frame of the defect detection device, the flipping driving assembly is rotatably installed on the base of the flipping and clamping mechanism and is connected to the driving motor of the flipping and clamping mechanism. The driving motor of the flipping and clamping mechanism is used to drive the flipping driving assembly to rotate. A plurality of positioning grooves for positioning the square ham are arranged on the flipping driving assembly along the circumferential direction; the image detection mechanism Ⅱ and the flipping electrode detection mechanism are arranged on the top of the base of the flipping and clamping mechanism. The image detection mechanism Ⅱ is used to collect the image information of the square ham; the flipping electrode detection mechanism is used to detect defects on the front side surface of the square ham; the discharging clamping mechanism clamps and conveys the square ham above the discharging end of the base of the flipping and clamping mechanism.
[0010] The secondary conveying and detecting mechanism includes a conveying and detecting mechanism main frame, a secondary electrode detecting mechanism, a secondary conveying mechanism, an image detecting mechanism III and a clamping and conveying mechanism, wherein the conveying and detecting mechanism main frame is arranged on the main frame of the defect detection device, and a feeding guide plate is arranged on both sides of one end close to the primary flipping and clamping detecting mechanism, the image detecting mechanism III, the secondary electrode detecting mechanism and the clamping and conveying mechanism are arranged on the conveying and detecting mechanism main frame in sequence along the conveying direction, the image detecting mechanism III is used to collect the image information of the square ham; the secondary electrode detecting mechanism is used for defect detection on the rear side of the square ham; the clamping and conveying mechanism is located at the discharge end of the conveying and detecting mechanism main frame, and the clamping and conveying mechanism and the secondary conveying mechanism cooperate to clamp and convey the square ham.
[0011] The loading and unloading clamping mechanism includes a driving support, a clamping drive assembly I, a driving motor I, a floating connecting rod mechanism I, a driving motor II, a clamping drive assembly II, a floating wheel assembly and a floating connecting rod mechanism II, wherein the driving support is arranged on the first-level flipping clamping detection mechanism, and the clamping drive assembly I is installed on the driving support perpendicular to the feeding direction and can rotate; the driving motor I is arranged on the driving support and connected to the clamping drive assembly I; the clamping drive assembly II and the floating wheel assembly are arranged in parallel with the clamping drive assembly I, and the driving motor II is connected to the clamping drive assembly II; the clamping drive assembly II is connected to the driving support through the floating connecting rod mechanism I, and the floating wheel assembly is connected to the driving support through the floating connecting rod mechanism II; the clamping drive assembly I and the clamping drive assembly II are both connected to the floating wheel assembly through two sets of conveyor belts, and the two sets of conveyor belts are clamped and conveyed above the square ham; the inclination angles of the two sets of conveyor belts can be adjusted through the floating connecting rod mechanism I and the floating connecting rod mechanism II.
[0012] The handover conveying mechanism includes a conveying drive assembly, a conveying transition plate, a transition plate bracket and a conveying mechanism bracket leg, wherein the conveying mechanism bracket leg is connected to the main frame of the defect detection device, the conveying transition plate is arranged at the upper end of the conveying mechanism bracket leg through the transition plate bracket, and the conveying transition plate is used to assist the first-level flip clamping detection mechanism to support the square ham; the conveying drive assembly is arranged at the upper end of the conveying mechanism bracket leg, and the conveying drive assembly is used to receive the square ham dropped from the conveying transition plate, and cooperate with the loading and unloading clamping mechanism to clamp the square ham and convey it forward.
[0013] The rejection mechanism includes a transition support plate, a support plate, rejection mechanism support legs, rejection guide shafts, a rejection cylinder, and a rejection push block. The rejection mechanism support legs are on the main frame of the defect detection device. The transition support plate is arranged on the top of the rejection mechanism support legs through the support plate. The transition support plate is used to assist the secondary flipping clamping detection mechanism in supporting the square ham. The rejection guide shafts and the rejection cylinder are arranged in parallel on the rejection mechanism support legs, and the rejection guide shafts are slidably matched with the rejection mechanism support legs. The output end of the rejection cylinder is connected to the rejection push block. When the rejection cylinder extends, it rejects the unqualified square ham through the rejection push block.
[0014] The defect detection device for the square ham further includes a buffer acceleration conveyor belt. The buffer acceleration conveyor belt includes buffer belt support legs, a buffer conveyor belt body, an acceleration conveyor belt body, a detection-in-place sensor, a limit cylinder, and a support. The buffer belt support legs are vertically arranged at the feeding end of the main frame of the defect detection device. The buffer conveyor belt body and the acceleration conveyor belt body are sequentially arranged on the buffer belt support legs and have the same transmission direction. The detection-in-place sensor and the limit cylinder are arranged on the buffer belt support legs through the support and are located on one side of the acceleration conveyor belt body. The detection-in-place sensor is used to detect whether the square hams are separated by a certain distance. If there are square hams that are not separated, the limit cylinder is used for effective separation.
[0015] The defect detection device for the square ham further includes a feeding and sorting-in-place mechanism. The feeding and sorting-in-place mechanism includes a full-intestine detection sensor, a mechanism cavity, a positioning cylinder push block, a positioning cylinder support, a positioning cylinder, and a sensor support. The mechanism cavity is arranged at the feeding end of the main frame of the defect detection device and is used to receive the square hams conveyed by the buffer acceleration conveyor belt. There is an opening on the side of the mechanism cavity. The positioning cylinder is arranged at the side opening of the mechanism cavity through the positioning cylinder support, and its output end is connected to the positioning cylinder push block. When the positioning cylinder extends, it can position the square hams in the mechanism cavity through the positioning cylinder push block. The full-intestine detection sensor is arranged on the top of the mechanism cavity through the sensor support, and the full-intestine detection sensor is used to detect whether the mechanism cavity is filled with square hams.
[0016] The first-level flipping clamping detection mechanism and the second-level flipping clamping detection mechanism have the same structure and are respectively connected to two sets of synchronous drive wheel assemblies. The synchronous drive wheel assemblies are used for transmission connection with the next-level process unit.
[0017] The advantages and positive effects of the present invention are as follows:
[0018] 1. In the present invention, the square hams are separated in sequence through the buffer acceleration conveyor belt and the feeding and sorting-in-place mechanism, realizing the continuity of conveying and detection.
[0019] 2. The present invention can achieve multi-directional image detection and electrode detection of square ham during transportation, and uses a new type of rotating electrode detection method, which greatly improves the detection efficiency.
[0020] 3. The present invention can turn the square ham during transportation and simultaneously perform surface defect detection. The synchronization of all links is achieved through a synchronous belt drive mechanism, with a simple structure and stable and reliable operation.
[0021] 4. All motors of the present invention adopt servo drive, which ensures the positioning accuracy of each link and improves the detection accuracy.
[0022] 5. Each defect detection link of the present invention can accurately detect unqualified products, provide signals to the rejection mechanism, and complete effective rejection. BRIEF DESCRIPTION OF THE DRAWINGS
[0023] Figure 1 is one of the three-dimensional structure schematic diagrams of a defect detection device for a square ham according to the present invention;
[0024] Figure 2 is the second three-dimensional structure schematic diagram of a defect detection device for a square ham according to the present invention;
[0025] Figure 3 is the three-dimensional structure schematic diagram of the frame of the detection device according to the present invention;
[0026] Figure 4 is the three-dimensional structure schematic diagram of the horizontal and rotation detection mechanism of the detection device according to the present invention;
[0027] Figure 5 is the three-dimensional structure schematic diagram of the flipping and clamping detection mechanism according to the present invention;
[0028] Figure 6 is the three-dimensional structure schematic diagram of the secondary conveying and detection mechanism according to the present invention;
[0029] Figure 7 is the three-dimensional structure schematic diagram of the clamping and over-conveying mechanism according to the present invention;
[0030] Figure 8 is the three-dimensional structure schematic diagram of the transfer and conveying mechanism according to the present invention;
[0031] Figure 9 is the three-dimensional structure schematic diagram of the rejection mechanism according to the present invention;
[0032] Figure 10 is the three-dimensional structure schematic diagram of the buffer acceleration belt according to the present invention;
[0033] Figure 11 is the three-dimensional structure schematic diagram of the feeding, sorting and positioning mechanism according to the present invention;
[0034] Figure 12 This is a three-dimensional structure schematic diagram of the driving assembly of each conveying mechanism of the present invention.
[0035] In the figure: 1 is the main frame of the defect detection device, 101 is the main frame, 102 is the upper frame of the detection device, 103 is the upper protective cover of the detection device, 104 is the synchronous drive tensioning seat, 105 is the base of the secondary flipping clamping mechanism, 106 is the outer protective cover removed, 107 is the frame protection door;
[0036] 2 is the horizontal and rotation detection mechanism, 201 is the main frame of the detection mechanism, 202 is the rotation electrode detection mechanism, 203 is the detection conveying mechanism, 204 is the synchronous drive wheel of the conveying mechanism, 205 is the pressing and clamping mechanism, 206 is the horizontal electrode detection mechanism, 207 is the image detection mechanism I;
[0037] 3 is the first-level flipping clamping detection mechanism, 301 is the base of the flipping clamping mechanism, 302 is the driving motor of the flipping clamping mechanism, 303 is the flipping drive assembly, 304 is the image detection mechanism II, 305 is the flipping electrode detection mechanism, 306 is the synchronous drive pulley, 307 is the discharging clamping mechanism;
[0038] 4 is the second-level conveying detection mechanism, 401 is the main frame of the conveying detection mechanism, 402 is the second-level electrode detection mechanism, 403 is the second-level conveying mechanism, 404 is the synchronous drive wheel, 405 is the image detection mechanism III, 406 is the feeding guide plate, 407 is the clamping and conveying mechanism;
[0039] 5 is the loading and unloading clamping mechanism, 501 is the driving support, 502 is the clamping drive assembly I, 503 is the driving motor I, 504 is the floating link mechanism I, 505 is the driving motor II, 506 is the clamping drive assembly II, 507 is the floating wheel assembly, 508 is the floating link mechanism II;
[0040] 6 is the transfer conveying mechanism, 601 is the conveying drive assembly, 602 is the conveying transition plate, 603 is the transition plate support, 604 is the leg of the conveying mechanism support;
[0041] 7 is the rejection mechanism, 701 is the transition support plate, 702 is the support plate, 703 is the leg of the rejection mechanism support, 704 is the rejection guide shaft, 705 is the guide shaft sleeve, 706 is the cylinder nozzle, 707 is the connecting plate, 708 is the rejection cylinder, 709 is the rejection push block;
[0042] 8 is the buffer and acceleration conveyor belt, 801 is the leg of the buffer belt support, 802 is the buffer conveyor belt body, 803 is the buffer conveyor drive motor, 804 is the acceleration conveyor belt body, 805 is the acceleration conveyor drive motor, 806 is the detection in-place sensor, 807 is the limit cylinder, 808 is the support, 809 is the square ham;
[0043] 9 is the in-feed sorting and positioning mechanism, 901 is the full-sausage detection sensor, 902 is the mechanism cavity, 903 is the positioning cylinder push block, 904 is the positioning cylinder bracket, 905 is the positioning cylinder, and 906 is the sensor bracket;
[0044] 10 is the synchronous drive wheel assembly, 1001 is the first synchronous drive wheel assembly, and 1002 is the second synchronous drive wheel assembly; 11 is the pneumatic assembly; 12 is the operation and display assembly; 13 is the control cabinet assembly; 14 is the secondary flipping and clamping detection mechanism. Specific embodiments
[0045] In order to make the objectives, technical solutions, and advantages of the present invention clearer, the present invention will be described in detail below with reference to the accompanying drawings and specific embodiments.
[0046] As Figure 1 、 Figure 2 shown, the present invention provides a defect detection device for square ham, including a main frame body 1 of the defect detection device and a horizontal and rotation detection mechanism 2, a primary flipping and clamping detection mechanism 3, a secondary conveying and detection mechanism 4, a secondary flipping and clamping detection mechanism 14, and a rejection mechanism 7 that are sequentially arranged on the main frame body 1 of the defect detection device. Among them, the horizontal and rotation detection mechanism 2 is used to detect defects on the top surface and left and right side surfaces of the square ham; the flipping and clamping detection mechanism 3 is used to detect defects on the front side surface of the square ham and flip it over; between the flipping and clamping detection mechanism 3 and the secondary conveying and detection mechanism 4, there are an upper and lower material clamping mechanism 5 and a transfer conveying mechanism 6 arranged up and down. Under the cooperative action of the upper and lower material clamping mechanism 5 and the transfer conveying mechanism 6, the square ham is smoothly transferred onto the secondary conveying and detection mechanism 4; the secondary conveying and detection mechanism 4 is used to detect defects on the rear side surface of the square ham; the secondary flipping and clamping detection mechanism 14 is used to detect defects on the bottom surface of the square ham, and the rejection mechanism 7 is used to reject the unqualified square ham.
[0047] As Figure 3As shown in the figure, in the embodiment of the present invention, the main frame body 1 of the defect detection device includes a main frame 101, an upper frame 102 of the detection device, an upper protective cover 103 of the detection device, a synchronous drive tensioning seat 104, a base 105 of the secondary flipping clamping mechanism, an outer protective cover 106 removed, and a frame protection door 107. The feet are fixed at the four corners of the main frame 101. The upper frame 102 of the detection device is fixed above the main frame 101 by screws and is flush with the rear end of the main frame 101. The upper protective cover 103 of the detection device is fixed tightly around the upper border of the upper frame 102. The synchronous drive tensioning seat 104 is fixed on the left crossbeam of the main frame 101 by screws. The base 105 of the secondary flipping clamping mechanism is fixed on the end crossbeam of the main frame 101. The outer protective cover 106 removed is fixed on the outside of the vertical beam of the upper frame 102 of the detection device. The frame protection door 107 is fixed on the vertical beam of the upper frame 102 of the detection device by a hinge and is symmetrically installed front and back. The pneumatic assembly 11 is fixed behind the control cabinet assembly 13. The operation and display assembly 12 is fixed on the side of the upper frame 102 of the detection device, at the same level as the human line of sight, for convenient operation. The control cabinet assembly 13 is fixed inside the front of the main frame 101.
[0048] As Figure 4 shown in the figure, in the embodiment of the present invention, the horizontal and rotational detection mechanism 2 includes a main frame 201 of the detection mechanism, a rotational electrode detection mechanism 202, a detection conveying mechanism 203, a pressing and clamping mechanism 205, a horizontal electrode detection mechanism 206, and an image detection mechanism 207. Among them, the main frame 201 of the detection mechanism is arranged on the main frame body 1 of the defect detection device. The detection conveying mechanism 203 is arranged on the main frame 201 of the detection mechanism and is used for the conveying of square hams. The image detection mechanism 207, the horizontal electrode detection mechanism 206, the rotational electrode detection mechanism 202, and the pressing and clamping mechanism 205 are arranged on the main frame 201 of the detection mechanism in sequence along the conveying direction of the detection conveying mechanism 203. The image detection mechanism Ⅰ207 is used for collecting the image information of the square ham. The horizontal electrode detection mechanism 206 is used for the defect detection of the top surface of the square ham. The rotational electrode detection mechanism 202 is used for the defect detection of the left and right side surfaces of the square ham. The pressing and clamping mechanism 205 is located at the end of the detection conveying mechanism 203 and cooperates with the detection conveying mechanism 203 to realize the clamping and conveying of the square ham.
[0049] Specifically, the horizontal and rotation detection mechanism 2 is at the front end inside the main frame body 1 of the defect detection device, and both ends of the bottom surface are fixed on the main frame 101 of the main frame body 1. The conveying chain is embedded inside the main frame 201 of the detection mechanism, and the chain support plate is fixed at the upper end of the main frame 201 of the detection mechanism. Polymer push blocks are equidistantly installed on the conveying chain of the detection and conveying mechanism 203, effectively separating the products. The rotating electrode detection mechanism 202 is directly connected to the upper surface of the main frame 201 of the detection mechanism, and the lower conveyor of the detection and conveying mechanism 203 passes horizontally through the rotating electrode detection mechanism 202, facilitating the detection of products. The pressing and clamping mechanism 205 is connected to the synchronous drive wheel assembly 10 through the conveyor synchronization drive wheel 204, realizing the synchronization of the two mechanisms. The pressing and clamping mechanism 205 is a belt drive mechanism, and is fixed to the drive end of the detection and conveying mechanism 203 through a bracket, and forms a certain angle with the detection and conveying mechanism 203, realizing the stable conveying of products. The horizontal electrode detection mechanism 206 is fixed to the upper end of the main frame 201 of the detection mechanism, at the front end of the rotating electrode detection mechanism 202. The image detection mechanism 207 is fixed to the upper end of the main frame 201 of the detection mechanism, at the front end of the horizontal electrode detection mechanism 206, realizing the multi-sided defect detection of products. Specifically, both the rotating electrode detection mechanism 202 and the horizontal electrode detection mechanism 206 are prior arts, and defect detection is realized through the form of discharging and charging closed loop.
[0050] As Figure 5 shown, in the embodiment of the present invention, the first-level flipping and clamping detection mechanism 3 includes a flipping and clamping mechanism base 301, a flipping and clamping mechanism driving motor 302, a flipping drive assembly 303, an image detection mechanism II 304, a flipping electrode detection mechanism 305 and a discharging clamping mechanism 307. The flipping and clamping mechanism base 301 is arranged on the main frame body 1 of the defect detection device. The flipping drive assembly 303 is rotatably installed on the flipping and clamping mechanism base 301 and is connected to the flipping and clamping mechanism driving motor 302. The flipping and clamping mechanism driving motor 302 is fixed to the flipping and clamping mechanism base 301 through a flange plate. The flipping and clamping mechanism driving motor 302 is used to drive the flipping drive assembly 303 to rotate. A plurality of positioning grooves for positioning square hams are arranged on the flipping drive assembly 303 along the circumferential direction; the flipping electrode detection mechanism 305 is arranged on the top of the flipping and clamping mechanism base 301 through a bracket. The image detection mechanism II 304 is fixed on the inclined surface of the flipping electrode detection mechanism 305 and is perpendicular to the tangent plane of the flipping drive assembly 303. The image detection mechanism II 304 is used to collect the image information of the square ham; the flipping electrode detection mechanism 305 is used for defect detection of the front side of the square ham; the discharging clamping mechanism 307 clamps and conveys the square ham above the discharging end of the flipping and clamping mechanism base 301.
[0051] Specifically, the first-level flipping and clamping detection mechanism 3 is fixed on the main frame 101 of the main frame body 1 of the defect detection device through the flipping and clamping mechanism base 301, and is closely combined with the horizontal and rotation detection mechanism 2 without interference. The other end of the drive shaft of the flipping drive assembly 303 is provided with a synchronous drive pulley 306. The discharging clamping mechanism 307 is fixed on the support leg of the flipping electrode detection mechanism 305 and forms a certain angle with the flipping drive assembly 303 to ensure the normal discharging of the product. Specifically, the discharging clamping mechanism 307 is a belt transmission mechanism and can perform flexible clamping and conveying on square hams.
[0052] As Figure 6 shown, in the embodiment of the present invention, the second-level conveying and detection mechanism 4 includes a conveying and detection mechanism main frame 401, a second-level electrode detection mechanism 402, a second-level conveying mechanism 403, an image detection mechanism III 405 and a clamping and conveying mechanism 407. The conveying and detection mechanism main frame 401 is arranged on the main frame body 1 of the defect detection device, and feeding guide plates 406 are provided on both sides of one end close to the first-level flipping and clamping detection mechanism 3. The image detection mechanism III 405, the second-level electrode detection mechanism 402 and the clamping and conveying mechanism 407 are sequentially arranged on the conveying and detection mechanism main frame 401 along the conveying direction. The image detection mechanism III 405 is used to collect image information of square hams; the second-level electrode detection mechanism 402 is used for defect detection on the rear side of square hams; the clamping and conveying mechanism 407 is located at the discharging end of the conveying and detection mechanism main frame 401, and the clamping and conveying mechanism 407 and the second-level conveying mechanism 403 cooperate to clamp and convey square hams.
[0053] Specifically, the second-level conveying and detection mechanism 4 is fixed in the middle and rear section of the main frame 101 of the main frame body 1 of the defect detection device, is closely combined with the first-level flipping and clamping detection mechanism 3 without interference. The second-level conveying mechanism 403 is embedded inside the conveying and detection mechanism main frame 401, and the main and driven parts are respectively fixed to the front and rear ends of the conveying and detection mechanism main frame 401 by screws. The second-level electrode detection mechanism 402 and the image detection mechanism III 405 are fixed on the conveying and detection mechanism main frame 401 using the same bracket, arranged front and rear in sequence. The synchronous drive wheel 404 is fixed to one end of the drive shaft of the second-level conveying mechanism 403, and the feeding guide plate 406 is fixed to the side plate of the driven end of the second-level conveying mechanism 403. The clamping and conveying mechanism 407 is fixed to the conveying and detection mechanism main frame 401 through a bracket and is close to the front end. In this embodiment, the second-level electrode detection mechanism 402 is a prior art and adopts a form of discharging and charging closed loop for detection; the clamping and conveying mechanism 407 is a belt transmission mechanism and can perform flexible clamping and conveying on square hams.
[0054] As Figure 7As shown in the figure, in the embodiment of the present invention, the loading and unloading clamping mechanism 5 includes a driving support 501, a clamping driving assembly I 502, a driving motor I 503, a floating link mechanism I 504, a driving motor II 505, a clamping driving assembly II 506, a floating wheel assembly 507 and a floating link mechanism II 508. The driving support 501 is arranged on the first-level flipping and clamping detection mechanism 3. The clamping driving assembly I 502 is installed on the driving support 501 perpendicular to the feeding direction and can rotate. The driving motor I 503 is arranged on the driving support 501 and connected to the clamping driving assembly I 502. The clamping driving assembly II 506 and the floating wheel assembly 507 are arranged in parallel with the clamping driving assembly I 502, and the driving motor II 505 is connected to the clamping driving assembly II 506. The clamping driving assembly II 506 is connected to the driving support 501 through the floating link mechanism I 504, and the floating wheel assembly 507 is connected to the driving support 501 through the floating link mechanism II 508. The clamping driving assembly I 502 and the clamping driving assembly II 506 are both drivingly connected to the floating wheel assembly 507 through two sets of transmission belts. The two sets of transmission belts clamp and convey above the square ham. The inclination angles of the two sets of transmission belts can be adjusted through the floating link mechanism I 504 and the floating link mechanism II 508.
[0055] Specifically, the loading and unloading clamping mechanism 5 is fixed on the bracket of the flipping electrode detection mechanism 305 of the first-level flipping and clamping detection mechanism 3, and is closely connected to the first-level flipping and clamping detection mechanism 3 and the second-level conveying detection mechanism 4 front and back. The clamping driving assembly I is fixed on the driving support 501 through a flange support, and the driving support 501 is symmetric on both sides. The driving motor I 503 is fixed to the driving support 501 through a flange and is connected to the clamping driving assembly I 502 through a coupling. One end of the floating link mechanism I 504 is connected to the driving support 501, and the other end is connected to the clamping driving assembly II 506 and forms a certain angle. The driving motor II 505 is connected to the flange seat of the floating link mechanism I 504 and is connected to the clamping driving assembly II 506 through a coupling. The floating wheel assembly 507 is suspended below the clamping driving assembly I 502 and the clamping driving assembly II 506 through the floating link mechanism II 508 and is connected to move through an O-shaped belt. The floating link mechanism I 504 and the floating link mechanism II 508 can both be adjusted at a certain angle on the driving support 501, which can ensure the clamping and smooth transition conveying of the product.
[0056] As Figure 8As shown in the figure, in the embodiment of the present invention, the transfer and conveying mechanism 6 includes a conveying drive assembly 601, a conveying transition plate 602, a transition plate bracket 603 and a conveying mechanism support leg 604. Among them, the conveying mechanism support leg 604 is connected to the main frame body 1 of the defect detection device. The conveying transition plate 602 is arranged at the upper end of the conveying mechanism support leg 604 through the transition plate bracket 603. The conveying transition plate 602 is used to assist the first-stage flipping and clamping detection mechanism 3 to support the square ham. The conveying drive assembly 601 is arranged at the upper end of the conveying mechanism support leg 604. The conveying drive assembly 601 is used to receive the square ham that falls from the conveying transition plate 602 and cooperate with the loading and unloading clamping mechanism 5 to clamp and convey the square ham forward.
[0057] Specifically, the transfer and conveying mechanism 6 is fixed on the main frame 101 of the main frame body 1 of the defect detection device and is embedded inside the first-stage flipping and clamping detection mechanism 3 and the second-stage conveying and detection mechanism 4, ensuring the stability of the product conveying during the transition stage between the two structures. In this embodiment, the conveying drive assembly 601 is a chain conveying mechanism. The conveying drive assembly 601 is connected to the driven shaft of the second-stage conveying mechanism 403 of the second-stage conveying and detection mechanism 4 and moves synchronously with the second-stage conveying mechanism 403. The driven end of the conveying drive assembly 601 is fixed on the conveying mechanism support leg 604. The transition plate bracket 603 is fixed above the side of the conveying mechanism support leg 604, and the conveying transition plate 602 is fixed directly above the transition plate bracket 603, and a part of it is matched with the conveying drive assembly 601, making the product conveying smoother.
[0058] As Figure 9 As shown in the figure, in the embodiment of the present invention, the rejection mechanism 7 includes a transition support plate 701, a support plate 702, a rejection mechanism support leg 703, a rejection guide shaft 704, a rejection cylinder 708 and a rejection push block 709. Among them, the rejection mechanism support leg 703 is on the main frame body 1 of the defect detection device. The transition support plate 701 is fixed on the support plate 702, and the support plate 702 is fixed on the top of the rejection mechanism support leg 703 through a connecting plate 707. The transition support plate 701 is used to assist the second-stage flipping and clamping detection mechanism 14 to support the square ham. The rejection guide shaft 704 and the rejection cylinder 708 are arranged in parallel on the rejection mechanism support leg 703, and the rejection guide shaft 704 is slidably matched with the guide shaft sleeve 705 at the upper part of the front end of the rejection mechanism support leg 703. The output end of the rejection cylinder 708 is connected to the rejection push block 709. When the rejection cylinder 708 extends, it rejects the unqualified square ham through the rejection push block 709. A cylinder air nozzle 706 is fixed on the rejection cylinder 708. When the detection signal is given to the rejection mechanism 7, the rejection cylinder 708 acts to effectively reject the defective products.
[0059] Specifically, the rejection mechanism 7 is embedded inside the secondary flipping clamping and detecting mechanism 14 and fixed on the main frame 101 of the main frame body 1 of the defect detection device, and does not interfere with any rotating components, which can effectively reject defective products.
[0060] As Figure 1 shown, on the basis of the above embodiment, a defect detection device for square ham provided by the present invention further includes a buffer acceleration conveyor belt 8 and a feeding sorting and positioning mechanism 9; the buffer acceleration belt 8 is placed in the front left of the main frame body 1 of the defect detection device and is connected to the main frame body 1 of the defect detection device, and the outlet corresponds to the feeding sorting and positioning mechanism 9.
[0061] As Figure 10 shown, in the embodiment of the present invention, the buffer acceleration conveyor belt 8 includes buffer belt support legs 801, a buffer conveyor belt body 802, an acceleration conveyor belt body 804, a detection in-place sensor 806, a limit air cylinder 807 and a bracket 808. Among them, the buffer belt support legs 801 are vertically arranged at the feeding end of the main frame body 1 of the defect detection device, and the buffer conveyor belt body 802 and the acceleration conveyor belt body 804 are sequentially arranged on the buffer belt support legs 801 and have the same transmission direction. The buffer conveyor belt body 802 and the acceleration conveyor belt body 804 achieve effective separation of square ham through a speed difference. The detection in-place sensor 806 and the limit air cylinder 807 are arranged on the buffer belt support legs 801 through the bracket 808 and are located on one side of the acceleration conveyor belt body 804. The detection in-place sensor 806 is used to detect whether the square ham is separated by a distance. If there is a square ham that has not been separated by a distance, it is effectively separated by the limit air cylinder 807.
[0062] Specifically, the buffer conveyor belt body 802 is fixed on the buffer belt support legs 801, and the buffer conveyor drive motor 803 is fixed at the front end of the buffer conveyor belt body 802 and is connected to the drive shaft, which can arrange the square ham 809 in rows in sequence. The acceleration conveyor belt body 804 is fixed on the buffer belt support legs 801, and the acceleration conveyor drive motor 805 is fixed at the front end of the acceleration conveyor belt body 804 and is connected to the drive shaft. The limit air cylinder 807 is fixed on the middle rear of the acceleration conveyor belt body 804 through the bracket 808 and is higher than the belt surface. The detection in-place sensor 806 is fixed on the middle rear upper of the acceleration conveyor belt body 804 through the bracket 808 and is used to detect whether the square ham 809 is separated by a distance. If there is a square ham 809 that has not been separated by a distance, it is effectively separated by the limit air cylinder 807, and finally the acceleration separation of the product is realized.
[0063] As Figure 11As shown in the figure, in the embodiment of the present invention, the feeding sorting and positioning mechanism 9 includes a full sausage detection sensor 901, a mechanism cavity 902, a positioning cylinder push block 903, a positioning cylinder bracket 904, a positioning cylinder 905 and a sensor bracket 906. Among them, the mechanism cavity 902 is arranged at the feeding end of the main frame body 1 of the defect detection device and is used to receive the square ham conveyed by the buffer acceleration conveyor belt 8. An opening is provided on the side of the mechanism cavity 902. The positioning cylinder 905 is arranged at the side opening of the mechanism cavity 902 through the positioning cylinder bracket 904, and the output end is connected to the positioning cylinder push block 903. When the positioning cylinder 905 extends, it can position the square ham in the mechanism cavity 902 through the positioning cylinder push block 903. The full sausage detection sensor 901 is arranged on the top of the mechanism cavity 902 through the sensor bracket 906, and the full sausage detection sensor 901 is used to detect whether the mechanism cavity 902 is full of square ham.
[0064] Specifically, the feeding sorting and positioning mechanism 9 is fixed on the driven end side plate of the horizontal and rotation detection mechanism 2, and provides products to the horizontal and rotation detection mechanism 2 in sequence. The full sausage detection sensor 901 is fixed directly above the mechanism cavity 902 through the sensor bracket 906, and the entrance of the mechanism cavity 902 corresponds exactly to the exit of the acceleration conveyor belt body 804. When the full sausage detection sensor 901 detects that the product in the mechanism cavity 902 is full, the buffer acceleration conveyor belt 8 stops running, and the positioning cylinder 905 then orderly drops the product onto the conveyor belt of the detection conveyor mechanism 203 at time intervals.
[0065] In the embodiment of the present invention, the first-level flipping and clamping detection mechanism 3 and the second-level flipping and clamping detection mechanism 14 have the same structure and are respectively connected to two sets of synchronous drive wheel assemblies 10. The synchronous drive wheel assemblies 10 are used for transmission connection with adjacent process units. Specifically, the synchronous drive wheel assemblies 10 are fixed on the main frame 101 of the defect detection device main frame body 1, and can realize the synchronization of the horizontal and rotation detection mechanism 2 and the first- and second-level flipping and clamping detection mechanisms.
[0066] As Figure 12 shown, in the embodiment of the present invention, the two sets of synchronous drive wheel assemblies 10 are respectively the first synchronous drive wheel assembly 1001 and the second synchronous drive wheel assembly 1002, and both the first synchronous drive wheel assembly 1001 and the second synchronous drive wheel assembly 1002 are belt drive mechanisms. The flipping and clamping mechanism drive motor 302 of the first-level flipping and clamping detection mechanism 3 transmits power to the horizontal and rotation detection mechanism 2 through the first synchronous drive wheel assembly 1001 to achieve synchronization between the two; similarly, the drive motor of the second-level flipping and clamping detection mechanism 14 transmits power to the second-level conveying and detection mechanism 4 through the second synchronous drive wheel assembly 1002, and at the same time drives the conveying drive assembly 601 to work to achieve synchronization among the three.
[0067] The present invention provides a defect detection device for square ham, and its working principle is as follows:
[0068] The square hams 809 on the buffer acceleration conveyor belt 8 are arranged in an orderly manner on the conveyor belt. The effective separation of the square hams 809 is achieved through the acceleration conveyor belt body 804, and they enter the mechanism cavity 902 of the feeding and sorting mechanism 9 in sequence. Under the action of the positioning cylinder 905, the square hams 809 enter the conveyor belt of the detection conveyor mechanism 203 at time intervals, and successively pass through the image detection mechanism I 207, the horizontal electrode detection mechanism 206, and the rotating electrode detection mechanism 202 to realize the defect detection of the upper surface and the left and right side surfaces of the square ham 809. Under the action of the pressing and clamping mechanism 205, the square ham 809 is smoothly transferred to the push block of the flipping drive assembly 303 of the first-level flipping and clamping detection mechanism 3. During this rotation process, through the image detection mechanism II 304 and the flipping electrode detection mechanism 305, the single-sided detection (front side) of the square ham 809 is realized, and the flipping and turning of the square ham 809 are realized, that is, the rear side of the square ham 809 after flipping faces upward. Under the combined action of the loading and unloading clamping mechanism 5 and the transfer conveyor mechanism 6, the square ham 809 is smoothly transferred to the conveyor chain of the secondary conveyor mechanism 403 of the secondary conveyor detection mechanism 4. Then, through the image detection mechanism III 405 and the secondary electrode detection mechanism 402, the defect detection of the rear side of the square ham 809 is realized, and it is smoothly conveyed to the secondary flipping and clamping detection mechanism 14 through the clamping conveyor mechanism 407 above the discharge port. Similarly, during this rotation process, through the secondary flipping image detection mechanism and the secondary flipping electrode detection mechanism, the detection of the last surface (bottom surface) of the square ham 809 is realized. After multi-stage image and electrode detections, if there are defective square hams 809, they are effectively removed through the removal mechanism 7 at the outlet of the secondary flipping and clamping detection mechanism 14. If the detection is qualified, the square ham 809 enters the next process for packaging, and finally, the all-round defect detection of the square ham 809 is completed.
[0069] Specifically, the pneumatic assembly mainly includes an air source processor, a switch valve, a solenoid valve, a regulating valve, etc., and is mainly used to control the actions of all cylinders.
[0070] The present invention provides a defect detection device for square ham, which can perform multi-directional defect detection on square ham, effectively remove defective ones, reduce the labor intensity of workers, improve the detection efficiency, and improve the overall work efficiency. In addition to being able to realize the defect detection of six surfaces of the square ham, this defect detection device can also effectively sort, convey, clamp and flip the square ham. At the same time, a detection and removal mechanism is added, which can timely alarm, remove and collect defective square hams, reduce the visual fatigue and labor intensity caused by long-term manual detection, greatly improve the detection efficiency of square ham, and improve the production efficiency of enterprises.
[0071] The above are only embodiments of the present invention and are not intended to limit the protection scope of the present invention. Any modifications, equivalent substitutions, improvements, expansions, etc. made within the spirit and principle of the present invention are all included in the protection scope of the present invention.
Claims
1. A defect detection device for square ham, characterized in that: The invention comprises a main frame (1) of a defect detection device, and a horizontal and rotating detection mechanism (2), a first-level flipping and clamping detection mechanism (3), a second-level conveying and detection mechanism (4), a second-level flipping and clamping detection mechanism (14) and a rejection mechanism (7) which are sequentially arranged on the main frame (1) of the defect detection device, wherein the horizontal and rotating detection mechanism (2) is used to realize defect detection on the top surface and left and right sides of the square ham; the flipping and clamping detection mechanism (3) is used to realize defect detection on the front side of the square ham and flip it over; a loading and unloading clamping mechanism (5) and a handover conveying mechanism (6) arranged up and down are provided between the flipping and clamping detection mechanism (3) and the second-level conveying and detection mechanism (4), and the loading and unloading clamping mechanism (5) and the handover conveying mechanism (6) realize the smooth transition of the square ham to the second-level conveying and detection mechanism (4) under the coordinated action; the second-level conveying and detection mechanism (4) is used to realize defect detection on the rear side of the square ham; the second-level flipping and clamping detection mechanism (14) is used to realize defect detection on the bottom surface of the square ham, and the rejection mechanism (7) is used to reject the square ham that fails the detection.
2. The defect detection device for square ham according to claim 1, characterized in that: The horizontal and rotating detection mechanism (2) comprises a detection mechanism main frame (201), a rotating electrode detection mechanism (202), a detection conveying mechanism (203), a clamping and clamping mechanism (205), a horizontal electrode detection mechanism (206) and an image detection mechanism (207), wherein the detection mechanism main frame (201) is arranged on the main frame (1) of the defect detection device, the detection conveying mechanism (203) is arranged on the detection mechanism main frame (201) and is used for conveying square ham; the image detection mechanism (207), the horizontal electrode detection mechanism (206), the rotating electrode detection mechanism (202) and the image detection mechanism (207) are arranged on the main frame (1) of the defect detection device, and the detection conveying mechanism (203) is arranged on the detection mechanism main frame (201) and is used for conveying square ham; The detection mechanism (202) and the pressing and clamping mechanism (205) are sequentially arranged on the detection mechanism main frame (201) along the conveying direction of the detection conveying mechanism (203); the image detection mechanism I (207) is used to collect image information of the square ham; the horizontal electrode detection mechanism (206) is used to detect defects on the top surface of the square ham; the rotating electrode detection mechanism (202) is used to detect defects on the left and right sides of the square ham; the pressing and clamping mechanism (205) is located at the end of the detection conveying mechanism (203) and cooperates with the detection conveying mechanism (203) to realize the clamping and conveying of the square ham.
3. The square ham defect detection device according to claim 1, characterized in that: The primary flip clamping detection mechanism (3) comprises a flip clamping mechanism base (301), a flip clamping mechanism drive motor (302), a flip drive assembly (303), an image detection mechanism II (304), a flip electrode detection mechanism (305) and a discharge clamping mechanism (307), wherein the flip clamping mechanism base (301) is arranged on the main frame (1) of the defect detection device, the flip drive assembly (303) is rotatably mounted on the flip clamping mechanism base (301) and is connected to the flip clamping mechanism drive motor (302), and the flip clamping mechanism drive motor (30 2) used to drive the flip drive assembly (303) to rotate, and a plurality of positioning grooves for positioning the square ham are provided on the flip drive assembly (303) along the circumferential direction; the image detection mechanism II (304) and the flip electrode detection mechanism (305) are arranged on the top of the flip clamping mechanism base (301), and the image detection mechanism II (304) is used to collect image information of the square ham; the flip electrode detection mechanism (305) is used to detect defects on the front side of the square ham; the discharge clamping mechanism (307) is above the discharge end of the flip clamping mechanism base (301) to clamp and transport the square ham.
4. The square ham defect detection device according to claim 1, characterized in that: The secondary conveying and detecting mechanism (4) comprises a conveying and detecting mechanism main frame (401), a secondary electrode detecting mechanism (402), a secondary conveying mechanism (403), an image detecting mechanism III (405) and a clamping and conveying mechanism (407), wherein the conveying and detecting mechanism main frame (401) is arranged on the main frame (1) of the defect detection device, and a feeding guide plate (406) is arranged on both sides of one end close to the primary flipping and clamping detecting mechanism (3); the image detecting mechanism III (405), the secondary electrode detecting mechanism (402) and the clamping and conveying mechanism (407) are arranged on the conveying and detecting mechanism main frame (401) in sequence along the conveying direction; the image detecting mechanism III (405) is used for collecting image information of square ham; the secondary electrode detecting mechanism (402) is used for defect detection on the rear side of the square ham; the clamping and conveying mechanism (407) is located at the discharge end of the conveying and detecting mechanism main frame (401), and the clamping and conveying mechanism (407) cooperates with the secondary conveying mechanism (403) to clamp and convey the square ham.
5. The square ham defect detection device according to claim 1, characterized in that: The loading and unloading clamping mechanism (5) comprises a driving support (501), a clamping drive assembly I (502), a driving motor I (503), a floating connecting rod mechanism I (504), a driving motor II (505), a clamping drive assembly II (506), a floating wheel assembly (507) and a floating connecting rod mechanism II (508), wherein the driving support (501) is arranged on the first-level flip clamping detection mechanism (3), the clamping drive assembly I (502) is installed on the driving support (501) perpendicular to the feeding direction and can rotate; the driving motor I (503) is arranged on the driving support (501) and connected to the clamping drive assembly I (502); the clamping drive assembly II (506), the floating wheel assembly The clamping drive assembly (507) is arranged in parallel with the clamping drive assembly I (502), and the driving motor II (505) is connected to the clamping drive assembly II (506); the clamping drive assembly II (506) is connected to the driving support (501) through the floating connecting rod mechanism I (504), and the floating wheel assembly (507) is connected to the driving support (501) through the floating connecting rod mechanism II (508); the clamping drive assembly I (502) and the clamping drive assembly II (506) are both connected to the floating wheel assembly (507) through two sets of transmission belts, and the two sets of transmission belts clamp and convey the square ham above; the inclination angles of the two sets of transmission belts can be adjusted through the floating connecting rod mechanism I (504) and the floating connecting rod mechanism II (508).
6. The square ham defect detection device according to claim 1, characterized in that: The handover conveying mechanism (6) comprises a conveying drive assembly (601), a conveying transition plate (602), a transition plate bracket (603) and a conveying mechanism bracket leg (604), wherein the conveying mechanism bracket leg (604) is connected to the main frame (1) of the defect detection device, the conveying transition plate (602) is arranged on the upper end of the conveying mechanism bracket leg (604) through the transition plate bracket (603), and the conveying transition plate (602) is used to assist the first-level flip clamping detection mechanism (3) in supporting the square ham; the conveying drive assembly (601) is arranged on the upper end of the conveying mechanism bracket leg (604), and the conveying drive assembly (601) is used to receive the square ham dropped from the conveying transition plate (602), and cooperate with the loading and unloading clamping mechanism (5) to clamp the square ham and convey it forward.
7. The square ham defect detection device according to claim 1, characterized in that: The rejecting mechanism (7) comprises a transition support plate (701), a support plate (702), a rejecting mechanism support leg (703), a rejecting guide shaft (704), a rejecting cylinder (708) and a rejecting push block (709), wherein the rejecting mechanism support leg (703) is on the main frame (1) of the defect detection device, the transition support plate (701) is arranged on the top of the rejecting mechanism support leg (703) through the support plate (702), and the transition support plate (701) It is used to assist the secondary flipping and clamping detection mechanism (14) in supporting the square ham; the rejection guide shaft (704) and the rejection cylinder (708) are arranged in parallel on the rejection mechanism support leg (703), and the rejection guide shaft (704) and the rejection mechanism support leg (703) are slidably matched; the output end of the rejection cylinder (708) is connected to the rejection push block (709), and the rejection cylinder (708) extends through the rejection push block (709) to reject unqualified square ham.
8. The square ham defect detection device according to claim 1, characterized in that: It also includes a buffer acceleration conveyor belt (8); The buffer accelerating conveyor belt (8) comprises a buffer belt support leg (801), a buffer conveyor belt body (802), an accelerating conveyor belt body (804), a detection position sensor (806), a limit cylinder (807) and a support (808), wherein the buffer belt support leg (801) is vertically arranged at the feeding end of the main frame (1) of the defect detection device, the buffer conveyor belt body (802) and the accelerating conveyor belt body (804) are arranged on the buffer belt support leg (801) in sequence and have the same transmission direction, the detection position sensor (806) and the limit cylinder (807) are arranged on the buffer belt support leg (801) through the support (808) and are located on one side of the accelerating conveyor belt body (804), and the detection position sensor (806) is used to detect whether the square hams are spaced apart. If there are square hams that are not spaced apart, they are effectively separated by the limit cylinder (807).
9. The defect detection device for square ham according to claim 8, characterized in that: The device also includes a feeding and sorting mechanism (9), which includes a full-bowel detection sensor (901), a mechanism cavity (902), a positioning cylinder push block (903), a positioning cylinder support (904), a positioning cylinder (905) and a sensor support (906), wherein the mechanism cavity (902) is arranged at the feeding end of the main frame (1) of the defect detection device, and is used to receive the square ham conveyed by the buffer acceleration conveyor belt (8); an opening is arranged on the side of the mechanism cavity (902), and the positioning cylinder (903) is arranged at the feeding end of the main frame (1) of the defect detection device, and is used to receive the square ham conveyed by the buffer acceleration conveyor belt (8); 05) is arranged at the side opening of the mechanism cavity (902) through a positioning cylinder bracket (904), and the output end is connected to the positioning cylinder push block (903), and the positioning cylinder (905) extends through the positioning cylinder push block (903) to position the square ham in the mechanism cavity (902); the full intestine detection sensor (901) is arranged at the top of the mechanism cavity (902) through a sensor bracket (906), and the full intestine detection sensor (901) is used to detect whether the mechanism cavity (902) is full of square ham.
10. The square ham defect detection device according to claim 1, characterized in that: The first-level flipping and clamping detection mechanism (3) and the second-level flipping and clamping detection mechanism (14) have the same structure and are respectively connected to two sets of synchronous drive wheel assemblies (10). The synchronous drive wheel assembly (10) is used for transmission connection with the next-level process unit.