A glass bottle full-chain traceable production management system

Abstract

This invention provides a full-chain traceable production management system for glass bottles, belonging to the field of production management technology. It solves the problem that current glass bottle production management typically records and tracks products on a batch basis. While batch tracking is possible, it's difficult to accurately pinpoint the specific individual bottle when quality issues arise, leading to a large recall scope and high recall costs. This full-chain traceable production management system for glass bottles includes a complete glass bottle production line, including but not limited to a columnar bottle-making machine, an annealing furnace, and a printing machine, as well as a MES system. A fiber laser marking machine and a first barcode reader are fixed next to the columnar bottle-making machine, and a flipping and moving component is installed next to the fiber laser marking machine. This invention allows for the recording and tracking of individual glass bottles, reducing the recall scope and costs when quality issues require recall.

Description

Technical Field

[0001] This invention belongs to the field of production management technology, and relates to a production management system, particularly a glass bottle full-chain traceable production management system. Background Technology

[0002] The production process of glass bottles involves crushing lumpy raw materials (quartz sand, soda ash, limestone, feldspar, etc.), mixing the raw materials, and then melting them at high temperatures in a tank furnace or tank kiln to form a uniform, bubble-free liquid glass that meets the molding requirements. Finally, the glass is "blown" into shape using a row-type bottle-making machine, and then annealed, post-processed, inspected, and packaged before being stored in the warehouse.

[0003] Currently, glass bottle production management is usually recorded and tracked on a "batch" basis. There is a lack of effective data communication between automated equipment on the production line, and production process parameters and online inspection results are disconnected. Although batch tracking is possible, it is impossible to accurately locate specific individual bottles when quality problems occur, resulting in a large recall scope and high recall costs. Summary of the Invention

[0004] The purpose of this invention is to address the aforementioned problems in existing technologies by proposing a glass bottle full-chain traceable production management system. The technical problem this invention aims to solve is: how to achieve the recording and tracking of individual glass bottles, and reduce the recall scope and cost when quality problems occur and recalls are needed.

[0005] The objective of this invention can be achieved through the following technical solutions: A traceable production management system for glass bottles includes a complete glass bottle production line, which includes, but is not limited to, a columnar bottle-making machine, an annealing furnace, and a printing machine, as well as a Manufacturing Execution System (MES). A fiber laser marking machine and a first barcode reader are fixed next to the columnar bottle-making machine. A flipping and moving assembly is installed next to the fiber laser marking machine. A detection and rejection assembly, a second barcode reader, and a recording and retention assembly are fixed next to both the annealing furnace and the printing machine. The detection and rejection assembly includes a visual inspection machine and a blower rejection mechanism. The recording and retention assembly includes an industrial camera. The first barcode reader, the fiber laser marking machine, the visual inspection machine, the industrial camera, and the second barcode reader are all connected to the MES system via an industrial network.

[0006] The working principle of this invention is as follows: After the glass bottle is formed by the columnar bottle-making machine, the glass bottle is flipped and transferred to the area below the output end of the fiber laser marking machine by the flipping and moving component. The fiber laser marking machine non-contactly etches a QR code on the bottom of the glass bottle, with the marking depth controlled between 0.1mm and 0.5mm to ensure that the QR code remains clearly readable after annealing. Then, after scanning and confirmation by the first barcode reader, the glass bottle forming information is transmitted to the MES system. The MES system then creates a digital file for the glass bottle and binds it with the source information. The glass bottle then flows along the entire glass bottle production line to the annealing furnace. After annealing in the annealing furnace, the annealed glass bottle is inspected by a vision inspection machine, and the results are recorded... The recording and storage component takes photos and saves them. After scanning and confirmation by a second barcode reader, the annealing information of the glass bottle is transmitted to the MES system. Unqualified annealed glass bottles are rejected by the blowing rejection mechanism and removed from the glass bottle production line. Qualified bottles continue to enter the post-processing stage along the glass bottle production line. The above operation is repeated during the post-processing of the glass bottles. All the glass bottles after the final product are recorded and saved at each process, thus enabling the glass bottle full-chain traceability production management system. Data can be connected between automated equipment on the production line, and production process parameters and online test results are recorded and saved. When quality problems occur, the specific individual bottle product can be accurately located, reducing the scope and cost of recall.

[0007] The flipping and moving assembly includes a fixed plate, a moving plate, and a first rotary motor. A second rotary motor is fixedly mounted on the side of the fixed plate away from the moving plate, and the output end of the second rotary motor passes through and extends to the other side of the fixed plate. A lead screw is fixedly mounted on the output end of the second rotary motor, and the lead screw is screwed into the moving plate. A limiting rod is fixedly mounted on the other side of the fixed plate, and the limiting rod is slidably connected to the moving plate. The first rotary motor is fixedly mounted next to the fiber laser marking machine by a fixing member. A round rod is fixedly mounted on the output end of the first rotary motor, and the outer cylindrical surface of the round rod is fixedly connected to one end of the fixed plate by a connecting member.

[0008] Using the above structure, the second rotary motor rotates the lead screw, which, under the limit of the limiting rod, causes the moving plate to move backward along the lead screw, thereby clamping and fixing the formed glass bottle between the fixed plate and the moving plate. Then, the first rotary motor drives the round rod and the fixed plate to rotate, causing the glass bottle clamped by the fixed plate and the moving plate to flip over, so that the bottom of the glass bottle faces upward, which facilitates the fiber laser marking machine to mark the bottom of the glass bottle. Marking the bottom of the glass bottle will not damage the strength of the glass bottle, nor will it affect the subsequent processing of the glass bottle such as spraying and printing.

[0009] Both the fixed plate and the moving plate are slidably connected to multiple sliding rods. One end of each sliding rod is fixed with a fixed head, and a high-temperature resistant soft sleeve is fitted and fixed to the outside of the fixed head. A pressure sensor is fixed inside the fixed head, and the pressure sensor is electrically connected to the second rotating motor. Multiple anti-slip grooves are opened on one side of the high-temperature resistant soft sleeve.

[0010] With the above structure, the sliding rod, fixed head and high temperature resistant soft sleeve are squeezed by the rearward movement of the moving plate, and the clamping force is transmitted to the inside of the second rotary motor through the pressure sensor, so that the second rotary motor can control the clamping force. The anti-slip groove can increase the surface friction of the high temperature resistant soft sleeve.

[0011] Multiple sleeves are fixed on opposite sides of the fixed plate and the moving plate. A compression spring is fixed at the other end of the slide rod, and the other end of the compression spring is fixed to the inner wall of the sleeve. The slide rod is slidably connected inside the sleeve.

[0012] With the above structure, after the high-temperature resistant soft sleeve is subjected to force, it pushes the slide rod backward and then pushes the compression spring. Under the elastic force of the compression spring, the slide rod is pushed in the opposite direction, so that the slide rod, the fixing head and the high-temperature resistant soft sleeve can flexibly fix the glass bottle and prevent the glass bottle from being damaged during the clamping and flipping process.

[0013] The blowing rejection mechanism includes a fixed frame, an air pump is fixedly mounted on the top of the fixed frame, and a nozzle is fixedly mounted on the output end of the air pump.

[0014] Using the above structure, compressed gas is blown out along the nozzle and spray head by the air pump, blowing the unqualified glass bottles to the outside of the conveyor belt of the glass bottle production line, thereby completing the rejection.

[0015] The blowing and removing mechanism also includes a trolley. Two fixing slots are opened on the bottom of one side of the trolley. A permanent magnet is fixed inside the fixing slot. A door panel is hinged to one end of the trolley. Two snap-fit ​​plates are fixed on one side of the fixing frame. The snap-fit ​​plates are slidably connected to the inside of the fixing slot and are magnetically attracted and fixed to the permanent magnet.

[0016] With the above structure, the rejected glass bottles are stored inside the trolley. The position of the trolley is limited and fixed by the use of a snap plate, a fixing groove and a permanent magnet, so that the trolley can be reset after the glass bottle fragments are dumped.

[0017] A guide plate is fixedly installed on the inner wall of the top of the trolley, and multiple breaking needles are fixedly installed on the inner wall of the bottom of the trolley. A through hole is opened inside the other side of the trolley, and a push plate is slidably connected inside the through hole. A cleaning plate is fixedly installed at the bottom of the push plate.

[0018] With the above structure, the glass bottle moves down along the guide plate into the trolley and collides with the breaking needle to break it into glass bottle fragments. After too many glass bottle fragments accumulate and bury the breaking needle, the push plate drives the cleaning plate to push the glass fragments around the breaking needle away from the breaking needle, thus facilitating the operation of the breaking needle.

[0019] The recording and retention component also includes a circular track, inside which a traveling trolley is tumbled, and the industrial camera is fixed to one side of the traveling trolley via an angle adjustment mechanism.

[0020] Using the above structure, the traveling trolley rotates along the circular track, driving the trolley to rotate and record the glass bottle, thus completing the recording.

[0021] The angle adjustment mechanism includes two connecting plates, which are fixed to one side of the traveling trolley. A rotating shaft is rotatably connected inside the two connecting plates. Threads are provided on the outer cylindrical surfaces at both ends of the rotating shaft, and two fastening nuts are screwed onto the outer cylindrical surfaces at both ends of the rotating shaft through the two threads. The industrial camera is fixed on the outer cylindrical surface of the rotating shaft, and a supplementary light is fixed on the outer cylindrical surface of the rotating shaft.

[0022] With the above structure, the auxiliary light and industrial camera are rotated to the appropriate position by rotating the rotating shaft, and then the fastening nut is tightened to complete the fixation, which makes it easier for the industrial camera to record different glass bottles and reduces its recording limitations.

[0023] Compared with existing technologies, this glass bottle end-to-end traceable production management system has the following advantages: 1. This invention equips the entire glass bottle production line with an MES system, and in conjunction with a fiber laser marking machine, a first barcode reader, a flipping and moving component, a detection and rejection component, a second barcode reader, and a recording and retention component, records and inspects the glass bottles throughout the entire process. This enables data communication between the automated equipment on the production line, records and saves production process parameters and online inspection results, and allows for precise location of specific individual bottles when quality problems occur, reducing the scope and cost of recalls.

[0024] 2. In this invention, the second rotary motor rotates the lead screw, which, under the limitation of the limiting rod, causes the moving plate to move backward along the lead screw, thereby clamping and fixing the formed glass bottle between the fixed plate and the moving plate. Then, the first rotary motor drives the round rod and the fixed plate to rotate, causing the glass bottle clamped by the fixed plate and the moving plate to flip over, so that the bottom of the glass bottle faces upward, which facilitates the fiber laser marking machine to mark the bottom of the glass bottle. Marking the bottom of the glass bottle will not damage the strength of the glass bottle, nor will it affect the subsequent processing of the glass bottle such as spraying and printing.

[0025] 3. In this invention, after the high-temperature resistant soft sleeve is subjected to force, it pushes the slide rod backward and then pushes the compression spring. Under the elastic force of the compression spring, the slide rod is pushed in the opposite direction, so that the slide rod, the fixing head and the high-temperature resistant soft sleeve can flexibly fix the glass bottle and prevent the glass bottle from being damaged during the clamping and flipping process. Attached Figure Description

[0026] Figure 1 This is a schematic diagram of the overall process of the present invention.

[0027] Figure 2 This is a schematic diagram of the structure of the flipping and moving component in this invention.

[0028] Figure 3 This is an exploded view of the slide bar and sleeve in this invention.

[0029] Figure 4 This is a diagram showing the positional relationship between the air pump and the trolley in this invention.

[0030] Figure 5 This is a schematic diagram of the trolley structure in this invention.

[0031] Figure 6 This is an exploded view of the trolley structure in this invention.

[0032] Figure 7 This is a schematic diagram of the recording and retention component in this invention.

[0033] Figure 8 This is the present invention. Figure 7 Enlarged view of the structure at point A in the middle.

[0034] In the diagram, 101 is the fixed plate; 102 is the moving plate; 103 is the first rotary motor; 104 is the round rod; 105 is the second rotary motor; 106 is the limit rod; 107 is the lead screw; 201 is the sliding rod; 202 is the fixed head; 203 is the high-temperature resistant soft sleeve; 204 is the anti-slip groove; 205 is the compression spring; 206 is the sleeve; 301 is the fixing frame; 302 is the air pump; 303 is the nozzle; and 304 is the clamp. 401. Connecting plate; 402. Trolley; 403. Guide plate; 404. Crushing needle; 405. Through hole; 406. Cleaning plate; 407. Push plate; 408. Fixing groove; 409. Permanent magnet; 501. Door panel; 502. Circular track; 503. Traveling trolley; 504. Connecting plate; 505. Rotating shaft; 506. Thread; 507. Fastening nut; 508. Industrial camera; 509. Fill light. Detailed Implementation

[0035] The following are specific embodiments of the present invention, which are described in conjunction with the accompanying drawings. However, the present invention is not limited to these embodiments.

[0036] like Figures 1-8As shown, this glass bottle full-chain traceable production management system includes a complete glass bottle production line, which includes, but is not limited to, a columnar bottle making machine, an annealing furnace, and a printing machine. It also includes a MES system. A fiber laser marking machine and a first barcode reader are fixed next to the columnar bottle making machine. A flipping and moving component is set next to the fiber laser marking machine. A detection and rejection component, a second barcode reader, and a recording and retention component are fixed next to the annealing furnace and the printing machine. The detection and rejection component includes a vision inspection machine and a blower rejection mechanism. The recording and retention component includes an industrial camera 507. The first barcode reader, the fiber laser marking machine, the vision inspection machine, the industrial camera 507, and the second barcode reader are all connected to the MES system via an industrial network.

[0037] After the glass bottle is formed by the columnar bottle-making machine, it is flipped and transferred to the area below the output of the fiber laser marking machine via a flipping and moving component. The fiber laser marking machine non-contactly etches a QR code on the bottom of the glass bottle, with the marking depth controlled between 0.1mm and 0.5mm to ensure the QR code remains clearly readable after annealing. The first barcode reader then scans and confirms the information, transmitting the glass bottle forming information to the MES system. The MES system then creates a digital file for the glass bottle and binds it to the source information. The glass bottle then flows along the entire glass bottle production line to the annealing furnace. After annealing, the annealed glass bottle is inspected by a vision inspection machine, and the results are recorded and stored. The process involves taking photos and saving them, then scanning and confirming them with a second barcode reader to transmit the glass bottle annealing information to the MES system. Unqualified annealed glass bottles are rejected by the blower rejection mechanism and removed from the glass bottle production line. Qualified bottles continue along the glass bottle production line into the post-processing stage, where the same steps are repeated. Finally, all the finished glass bottles are recorded and saved at each stage, enabling a traceable production management system for the entire glass bottle chain. Data can be exchanged between automated equipment on the production line, and production process parameters and online test results are recorded and saved. When quality problems occur, the specific individual bottle can be accurately located, reducing the scope and cost of recalls.

[0038] The flipping and moving assembly includes a fixed plate 101, a moving plate 102, and a first rotary motor 103. A second rotary motor 105 is fixed on the side of the fixed plate 101 away from the moving plate 102, and the output end of the second rotary motor 105 passes through and extends to the other side of the fixed plate 101. A lead screw 107 is fixed on the output end of the second rotary motor 105, and the lead screw 107 is screwed to the moving plate 102. A limiting rod 106 is fixed on the other side of the fixed plate 101, and the limiting rod 106 is slidably connected to the moving plate 102. The first rotary motor 103 is fixed next to the fiber laser marking machine by a fixing member. A round rod 104 is fixed on the output end of the first rotary motor 103, and the outer cylindrical surface of the round rod 104 is fixed to one end of the fixed plate 101 by a connecting member.

[0039] In this embodiment, the second rotary motor 105 causes the lead screw 107 to rotate, thereby causing the moving plate 102 to move backward along the lead screw 107 under the limit of the limiting rod 106, thus clamping and fixing the formed glass bottle between the fixed plate 101 and the moving plate 102. Then, the first rotary motor 103 drives the round rod 104 and the fixed plate 101 to rotate, thereby causing the glass bottle clamped by the fixed plate 101 and the moving plate 102 to flip over, so that the bottom of the glass bottle faces upward, which is convenient for the fiber laser marking machine to mark the bottom of the glass bottle. Marking the bottom of the glass bottle will not damage the strength of the glass bottle, nor will it affect the subsequent processing such as glass bottle spraying and printing.

[0040] Both the fixed plate 101 and the moving plate 102 are slidably connected to multiple slide rods 201. One end of each slide rod 201 is fixed with a fixed head 202, and a high-temperature resistant soft sleeve 203 is sleeved and fixed to the outside of the fixed head 202. A pressure sensor is fixed inside the fixed head 202. The pressure sensor is electrically connected to the second rotary motor 105. Multiple anti-slip grooves 204 are opened on one side of the high-temperature resistant soft sleeve 203.

[0041] In this embodiment, the sliding rod 201, the fixed head 202 and the high-temperature resistant soft sleeve 203 are driven to squeeze the glass bottle by the rearward movement of the moving plate 102, and the clamping force is transmitted to the inside of the second rotary motor 105 by the pressure sensor, so that the second rotary motor 105 can control the clamping force. The anti-slip groove 204 can increase the surface friction of the high-temperature resistant soft sleeve 203.

[0042] Multiple sleeves 206 are fixed on opposite sides of the fixed plate 101 and the moving plate 102. A compression spring 205 is fixed at the other end of the slide rod 201, and the other end of the compression spring 205 is fixed to the inner wall of the sleeve 206. The slide rod 201 is slidably connected to the inside of the sleeve 206.

[0043] In this embodiment, after the high-temperature resistant soft sleeve 203 is subjected to force, it pushes the slide rod 201 backward and then pushes the compression spring 205. Under the elastic force of the compression spring 205, the slide rod 201 is pushed in the opposite direction, so that the slide rod 201, the fixing head 202 and the high-temperature resistant soft sleeve 203 can flexibly fix the glass bottle and prevent the glass bottle from being damaged during the clamping and flipping process.

[0044] The air-blowing rejection mechanism includes a fixed frame 301, an air pump 302 is fixedly mounted on the top of the fixed frame 301, and a nozzle 303 is fixedly mounted on the output end of the air pump 302.

[0045] In this embodiment, the air pump 302 blows compressed gas along the nozzle 303 and the nozzle, blowing the unqualified glass bottles to the outside of the conveyor belt of the glass bottle production line, thereby completing the rejection.

[0046] The blower rejection mechanism also includes a trolley 401. Two fixing slots 407 are provided on the bottom of one side of the trolley 401. A permanent magnet 408 is fixed inside the fixing slot 407. A door panel 409 is hinged to one end of the trolley 401. Two snap-fit ​​plates 304 are fixed on one side of the fixing frame 301. The snap-fit ​​plates 304 are slidably connected inside the fixing slots 407 and are magnetically fixed to the permanent magnet 408.

[0047] In this embodiment, the rejected glass bottles are stored inside the trolley 401. The position of the trolley 401 is limited and fixed by the cooperation of the snap plate 304, the fixing groove 407 and the permanent magnet 408, so that the trolley 401 can be reset after the glass bottle fragments are poured out.

[0048] A guide plate 402 is fixedly provided on the inner wall of the top of the trolley 401, and a plurality of breaking needles 403 are fixedly provided on the inner wall of the bottom of the trolley 401. A through hole 404 is opened inside the other side of the trolley 401. A push plate 406 is slidably connected inside the through hole 404. A cleaning plate 405 is fixedly provided at the bottom of the push plate 406.

[0049] In this embodiment, the glass bottle moves down along the guide plate 402 into the trolley 401 and collides with the breaking needle 403, thereby breaking it and forming glass bottle fragments. After too many glass bottle fragments accumulate and bury the breaking needle 403, the push plate 406 drives the cleaning plate 405 to push the glass fragments around the breaking needle 403 away from the breaking needle 403, thereby facilitating the operation of the breaking needle 403.

[0050] The recording and retention components also include a circular track 501, inside which a trolley 502 is tumbled and connected, and an industrial camera 507 is fixed to one side of the trolley 502 via an angle adjustment mechanism.

[0051] In this embodiment, the traveling trolley 502 rotates along the circular track 501, causing the traveling trolley 502 to rotate and record the glass bottle, thereby completing the recording.

[0052] The angle adjustment mechanism includes two connecting plates 503, which are fixed to one side of the traveling trolley 502. A rotating shaft 504 is rotatably connected inside the two connecting plates 503. Threads 505 are provided on the outer cylindrical surfaces at both ends of the rotating shaft 504, and two fastening nuts 506 are screwed onto the outer cylindrical surfaces at both ends of the rotating shaft 504 through the two threads 505. An industrial camera 507 is fixed on the outer cylindrical surface of the rotating shaft 504, and a supplementary light 508 is fixed on the outer cylindrical surface of the rotating shaft 504.

[0053] In this embodiment, the auxiliary light 508 and the industrial camera 507 are rotated to a suitable position by rotating the rotating shaft 504, and then the fastening nut 506 is tightened to complete the fixation, which makes it easier for the industrial camera 507 to record different glass bottles and reduces its recording limitations.

[0054] Working principle of the invention: After the glass bottle is formed by the columnar bottle-making machine, the second rotary motor 105 operates to rotate the lead screw 107. Under the limitation of the limiting rod 106, the moving plate 102 moves backward along the lead screw 107. The backward movement of the moving plate 102 drives the slide rod 201, the fixed head 202, and the high-temperature resistant soft sleeve 203 to compress the glass bottle. The clamping force is transmitted to the second rotary motor 105 via a pressure sensor. When the high-temperature resistant soft sleeve 203 is subjected to force, it pushes the slide rod 201 backward, which in turn pushes the compression spring 205. Under the elastic force of the compression spring 205, the slide rod 201 is compressed. The reverse push allows the slide bar 201, fixed head 202, and high-temperature resistant soft sleeve 203 to flexibly fix the glass bottle. Then, the first rotary motor 103 drives the round rod 104 and fixed plate 101 to rotate, causing the glass bottle held by the fixed plate 101 and moving plate 102 to flip over, so that the bottom of the glass bottle faces upwards, and is transferred to the area below the output end of the fiber laser marking machine. The fiber laser marking machine non-contactly etches a QR code on the bottom of the glass bottle, with the marking depth controlled between 0.1mm and 0.5mm to ensure that the QR code remains clearly readable after annealing. After scanning and confirmation by the first barcode reader, the glass bottle forming information is transmitted to the MES system. The MES system then creates a digital file for the glass bottle and binds it to the source information. The glass bottle then flows along the entire glass bottle production line to the annealing furnace. After annealing, the annealed glass bottle is inspected by a vision inspection machine. A traveling trolley 502 rotates along a circular track 501, recording the rotation of the glass bottle. This recording is then confirmed by scanning and confirmation by a second barcode reader, and the glass bottle annealing information is transmitted to the MES system. After annealing, qualified glass bottles move down along guide plate 402 into trolley 401 and collide with breaking needle 403, thus breaking them into glass bottle fragments. If too many glass bottle fragments accumulate and bury the breaking needle 403, push plate 406 drives cleaning plate 405 to push the glass fragments around the breaking needle 403 away from it and store them inside trolley 401. Qualified fragments continue to enter the post-processing stage along the entire glass bottle production line. The above operation is continued during the post-processing of the glass bottles.

[0055] In summary, by equipping the entire glass bottle production line with an MES system, and in conjunction with a fiber laser marking machine, a first barcode reader, a flipping and moving assembly, an inspection and rejection assembly, a second barcode reader, and a recording and retention assembly, the entire process of recording and inspecting glass bottles is achieved. This enables data communication between the automated equipment on the production line, and the recording and storage of production process parameters and online inspection results. When quality problems occur, the specific individual bottle can be accurately located, reducing the scope and cost of recalls.

[0056] The specific embodiments described herein are merely illustrative of the spirit of the invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to substitute them, without departing from the spirit of the invention or exceeding the scope defined by the appended claims.

Claims

1. A glass bottle full chain traceable production management system comprising a glass bottle full process production line including, but not limited to, a line-type bottle making machine, an annealing furnace, and a printing machine, characterized in that, It also includes an MES system. A fiber laser marking machine and a first barcode reader are fixed next to the columnar bottle making machine. A flipping and moving component is set next to the fiber laser marking machine. A detection and rejection component, a second barcode reader, and a recording and retention component are fixed next to the annealing furnace and the printing machine. The detection and rejection component includes a vision inspection machine and a blower rejection mechanism. The recording and retention component includes an industrial camera (507). The first barcode reader, the fiber laser marking machine, the vision inspection machine, the industrial camera (507), and the second barcode reader are all connected to the MES system via an industrial network.

2. A glass bottle full-chain traceable production management system according to claim 1, characterized in that, The flipping and moving assembly includes a fixed plate (101), a moving plate (102), and a first rotary motor (103). A second rotary motor (105) is fixed on the side of the fixed plate (101) away from the moving plate (102), and the output end of the second rotary motor (105) passes through and extends to the other side of the fixed plate (101). A lead screw (107) is fixed on the output end of the second rotary motor (105), and the lead screw (107) is screwed to the moving plate (102). A limiting rod (106) is fixed on the other side of the fixed plate (101), and the limiting rod (106) is slidably connected to the moving plate (102). The first rotary motor (103) is fixed next to the fiber laser marking machine by a fixing member. A round rod (104) is fixed on the output end of the first rotary motor (103), and the outer cylindrical surface of the round rod (104) is fixed to one end of the fixed plate (101) by a connecting member.

3. The glass bottle full-chain traceable production management system according to claim 2, characterized by, Both the fixed plate (101) and the moving plate (102) are slidably connected with multiple sliding rods (201). One end of each sliding rod (201) is fixed with a fixed head (202), and a high-temperature resistant soft sleeve (203) is sleeved and fixed on the outside of the fixed head (202). A pressure sensor is fixed inside the fixed head (202), and the pressure sensor is electrically connected to the second rotary motor (105). Multiple anti-slip grooves (204) are opened on one side of the high-temperature resistant soft sleeve (203).

4. The glass bottle full-chain traceable production management system according to claim 3, characterized by, The fixed plate (101) and the moving plate (102) are each fixed with a plurality of sleeves (206) on opposite sides. The other end of the slide rod (201) is fixed with a compression spring (205), and the other end of the compression spring (205) is fixed to the inner wall of the sleeve (206). The slide rod (201) is slidably connected to the inside of the sleeve (206).

5. The glass bottle full-chain traceable production management system according to claim 1, characterized in that, The blowing removal mechanism includes a fixed frame (301), a blowing pump (302) is fixedly mounted on the top of the fixed frame (301), and a nozzle (303) is fixedly mounted on the output end of the blowing pump (302).

6. The glass bottle full-chain traceable production management system according to claim 5, characterized in that, The blowing and removing mechanism also includes a trolley (401), which has two fixing slots (407) on one side bottom. A permanent magnet (408) is fixed inside the fixing slot (407). A door panel (409) is hinged to one end of the trolley (401). Two snap-fit ​​plates (304) are fixed on one side of the fixing frame (301). The snap-fit ​​plates (304) are slidably connected inside the fixing slot (407) and magnetically attracted to the permanent magnet (408).

7. The glass bottle full-chain traceable production management system according to claim 6, characterized in that, The trolley (401) has a guide plate (402) fixedly installed on the inner wall of the top, and a plurality of breaking needles (403) fixedly installed on the inner wall of the bottom end. A through hole (404) is opened inside the other side of the trolley (401), and a push plate (406) is slidably connected inside the through hole (404). A cleaning plate (405) is fixedly installed at the bottom end of the push plate (406).

8. The glass bottle full-chain traceable production management system according to claim 1, characterized in that, The recording and retention component also includes a circular track (501), inside which a trolley (502) is tumbled. The industrial camera (507) is fixed to one side of the trolley (502) by an angle adjustment mechanism.

9. A glass bottle full-chain traceable production management system according to claim 8, characterized in that, The angle adjustment mechanism includes two connecting plates (503), which are fixed to one side of the traveling trolley (502). A rotating shaft (504) is rotatably connected inside the two connecting plates (503). Threads (505) are provided on the outer cylindrical surfaces at both ends of the rotating shaft (504), and two fastening nuts (506) are screwed onto the outer cylindrical surfaces at both ends of the rotating shaft (504) through the two threads (505). The industrial camera (507) is fixed on the outer cylindrical surface of the rotating shaft (504), and a supplementary light (508) is fixed on the outer cylindrical surface of the rotating shaft (504).

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