A system for producing a columnar product
By introducing secondary drying and post-inspection into the columnar product production system, the problems of low production efficiency and unreasonable layout were solved, achieving an efficient and reasonable production process and avoiding the packaging of unqualified products.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- TRUKING TECH LTD
- Filing Date
- 2022-12-30
- Publication Date
- 2026-08-04
AI Technical Summary
The existing production process for columnar products suffers from problems such as low production efficiency, unreasonable layout, and difficulty in detecting substandard products.
A columnar product production system is adopted, including a shell loading device, a shell drying device, a columnar product assembly device, a columnar product drying device, a testing device, and a boxing device. The system improves production efficiency and has a reasonable layout through secondary drying and post-testing.
It improved production efficiency, avoided packaging substandard products, and achieved an efficient and rational production process.
Smart Images
Figure CN116216015B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of food and pharmaceutical packaging machinery and equipment, and in particular to a columnar product production system. Background Technology
[0002] The current bullet manufacturing plant uses single-machine production for bullet production. The glue at the connection between the cartridge case, primer, and bullet is cooled by natural air cooling, which requires a lot of time to place. Moreover, the glue on the cartridge case must be cooled first, and then the glue on the bullet must be cooled. Each cooling process requires manual handling and placement, which greatly wastes time, space, and manpower, resulting in low production efficiency and failing to meet the requirements of modern bullet production.
[0003] The existing bullet assembly production line includes: a bullet storage device, a cartridge case assembly and gluing device, a full cartridge assembly device, a full cartridge inspection and coating device, a cartridge case feeding and sorting device, a bullet conveying and sorting device, a cartridge case drying device, and a CNC system. It has the following drawbacks: 1) The cartridge cases are dried by air drying, which is time-consuming and inefficient; 2) The process of drying after inspection is poorly designed, and defective products may be generated during the drying process and cannot be inspected. Summary of the Invention
[0004] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide a columnar product production system with high production efficiency, reasonable layout and avoidance of packaging defective products.
[0005] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:
[0006] A columnar product production system includes, in sequence, a shell loading device, a shell drying device, a columnar product assembly device, a columnar product drying device, a testing device, and a boxing device. The shell loading device is used to load materials into the shell and transport the shell to the shell drying device. The shell drying device is used to dry the shell after loading. The columnar product assembly device is used to assemble shell heads onto the dried shell to form a columnar product. The testing device is used to perform visual inspection on the assembled columnar product. The boxing device is used to box the qualified columnar product.
[0007] As a further improvement to the above technical solution:
[0008] The columnar product drying device includes a drying chamber, which contains a drying drum and a drying rotation drive mechanism for driving the drying drum to rotate. The drying drum has multiple drying material slots arranged at intervals around its central axis on its peripheral wall. The drying chamber has a drying inlet and a drying outlet.
[0009] The columnar product drying device also includes a cooling box, which contains a cooling drum and a cooling rotation drive mechanism for driving the cooling drum to rotate. The cooling drum has multiple cooling material slots arranged at intervals around its central axis on its peripheral wall. The cooling box has a cooling inlet and a cooling outlet, which are connected to the drying outlet. The drying box has a first pushing mechanism for pushing the shell on the drying material slot through the drying outlet and the cooling inlet onto the cooling material slot.
[0010] The cooling box is equipped with a second pushing mechanism for pushing the shell on the cooling material slot out through the cooling outlet. The drying inlet is located at the bottom of the side wall of the drying box, the drying outlet is located at the top of the side wall of the drying box, the cooling outlet is located at the bottom of the side wall of the cooling box, and the cooling outlet is located at the top of the side wall of the cooling box.
[0011] The drying inlet is equipped with a feeding flipping device for flipping the columnar product into an inverted state, and the cooling outlet is equipped with a discharging flipping mechanism for flipping the columnar product into an upright state.
[0012] The feeding and turning device includes a rotatably mounted feeding and turning frame and a feeding rotation drive mechanism for driving the feeding and turning frame to rotate. The feeding and turning frame is provided with at least one pair of feeding slots symmetrical about the rotation center of the feeding and turning frame. The side of the feeding and turning frame is provided with a feeding guide groove and a discharge guide groove that connects with the drying inlet. The two pairs of feeding slots alternately connect with the feeding guide groove and the discharge guide groove. The feeding and turning device also includes a third pushing mechanism for pushing upright columnar products on the feeding guide groove to the feeding slot and a fourth pushing mechanism for pushing inverted columnar products on the feeding slot to the discharge guide groove.
[0013] The discharge flipping mechanism includes a rotatably mounted discharge flipping frame and a discharge rotation drive mechanism for driving the discharge flipping frame to rotate. The discharge flipping frame is provided with at least one pair of discharge seats symmetrical about the rotation center of the discharge flipping frame. Each discharge seat is provided with a row of discharge clamping grooves. A transverse sliding seat and an oblique transfer mechanism are provided on the side of the discharge flipping frame. The transverse sliding seat is provided with a row of receiving grooves for docking with the cooling discharge port and is connected to the transverse drive mechanism. The discharge clamping grooves on the two pairs of discharge seats alternately dock with the receiving grooves on the transverse sliding seat and the oblique transfer mechanism. The discharge flipping mechanism also includes a fifth pushing mechanism for pushing the upright columnar products on the discharge clamping grooves to the oblique transfer mechanism.
[0014] The shell loading device includes a shell conveying mechanism and a shell loading mechanism. A sixth pushing mechanism is provided between the shell loading mechanism and the shell conveying mechanism for pushing the loaded shells onto the shell conveying mechanism. A seventh pushing mechanism is provided between the shell conveying mechanism and the shell drying device for pushing the shells on the shell conveying mechanism into the shell drying device.
[0015] A product tilting device is provided between the shell drying device and the columnar product assembly device. The product tilting device includes a shell hanging conveyor mechanism and a horizontal conveyor mechanism that are connected to each other. The shell hanging conveyor mechanism is connected to the shell drying device. A blocking and tilting part is provided between the shell hanging conveyor mechanism and the horizontal conveyor mechanism to prevent the bottom of the shell from tilting flat onto the horizontal conveyor mechanism. The horizontal conveyor mechanism is connected to the columnar product assembly device.
[0016] A guiding device is provided between the horizontal conveying mechanism and the columnar product assembly device. The guiding device includes a material distribution mechanism, at least two downward inclined guide pipes, and a material blocking and speed reduction mechanism provided on the guide pipes. The top end of the guide pipe is connected to the horizontal conveying mechanism through the material distribution mechanism, and the bottom end is connected to the columnar product assembly device.
[0017] Compared with the prior art, the advantages of the present invention are as follows:
[0018] The columnar product production system of this invention comprises the following process: After the shell is loaded into a shell loading device, it is sent to a shell drying device for drying. The dried shell is then conveyed to a columnar product assembly device, where shell heads are assembled onto the dried shell to form a columnar product. The assembled columnar products are then sent to a columnar product drying device for further drying. After drying, the products undergo visual inspection by an inspection device. Qualified columnar products are then packaged by a boxing device. This columnar product production system utilizes a two-stage drying process, improving production efficiency. Furthermore, the inspection device is strategically placed after the columnar product drying device, allowing for inspection after drying, thus preventing the packaging of substandard products. Attached Figure Description
[0019] Figure 1 This is a top view of the columnar product manufacturing system of the present invention.
[0020] Figure 2 This is a three-dimensional structural diagram of the column product drying device in the column product production system of the present invention.
[0021] Figure 3 This is a schematic diagram of the internal structure of the columnar product drying device in the columnar product production system of the present invention.
[0022] Figure 4 This is a schematic diagram of the shell loading device of the columnar product production system of the present invention.
[0023] Figure 5 This is a schematic diagram of the product tilting device of the columnar product production system of the present invention.
[0024] Figure 6 This is a schematic diagram of the guiding device of the columnar product production system of the present invention.
[0025] Figure 7 This is a schematic diagram of the drying drum of the columnar product production system of the present invention.
[0026] Figure 8 This is a schematic diagram of the drying tray of the columnar product production system of the present invention.
[0027] Figure 9 This is a schematic diagram of the cooling rotary drum of the columnar product production system of the present invention.
[0028] Figure 10 This is a schematic diagram of the cooling material tray of the columnar product production system of the present invention.
[0029] Figure 11 This is a schematic diagram of the feeding and turning device of the columnar product production system of the present invention.
[0030] Figure 12 This is a schematic diagram of the discharge turning device of the columnar product production system of the present invention.
[0031] The labels in the diagram represent:
[0032] 1. Shell loading device; 11. Shell conveying mechanism; 12. Shell loading mechanism; 13. Sixth pushing mechanism; 14. Seventh pushing mechanism; 2. Shell drying device; 3. Columnar product assembly device; 4. Columnar product drying device; 41. Drying box; 411. Drying drum; 412. Drying rotation drive mechanism; 413. Drying material clamping groove; 414. Drying inlet; 415. Drying outlet; 42. Cooling box; 421. Cooling drum; 422. Cooling rotation drive mechanism; 423. Cooling material clamping groove; 424. Cooling inlet; 425. Cooling outlet; 43. First pushing mechanism; 44. Second pushing mechanism; 5. Detection device; 6. Packing device; 7. Feeding tilting mechanism Device; 71. Feeding tilting frame; 72. Feeding rotation drive mechanism; 73. Feeding clamping groove; 74. Feeding guide groove; 75. Discharge guide groove; 76. Third pushing mechanism; 77. Fourth pushing mechanism; 8. Discharge tilting mechanism; 81. Discharge tilting frame; 82. Discharge rotation drive mechanism; 83. Discharge seat; 84. Discharge clamping groove; 85. Horizontal moving seat; 85. Receiving groove; 86. Inclined transfer mechanism; 87. Lateral drive mechanism; 88. Fifth pushing mechanism; 9. Product tilting device; 91. Shell inverted conveying mechanism; 92. Flat conveying mechanism; 93. Blocking and tilting part; 94. Guiding device; 941. Material distribution mechanism; 942. Guide pipe; 943. Material blocking and speed reduction mechanism. Detailed Implementation
[0033] The present invention will be further described in detail below with reference to the accompanying drawings and specific embodiments.
[0034] As shown in this disclosure and the claims, unless the context clearly indicates otherwise, the words "a," "an," "an," and / or "the" are not specifically singular and may include plural forms. The terms "first," "second," and similar terms used in this disclosure do not indicate any order, quantity, or importance, but are merely used to distinguish different components. Similarly, the terms "comprising" or "including" mean that the element or object preceding the word covers the element or object listed after the word and its equivalents, without excluding other elements or objects. The terms "connected" or "linked" are not limited to physical or mechanical connections but may include electrical connections, whether direct or indirect.
[0035] Figures 1 to 12This invention illustrates an embodiment of a columnar product production system. The system includes, in sequence, a shell loading device 1, a shell drying device 2, a columnar product assembly device 3, a columnar product drying device 4, a detection device 5, and a boxing device 6. The shell loading device 1 is used to load materials into the shell and transport the shell to the shell drying device 2. The shell drying device 2 is used to dry the loaded shell. The columnar product assembly device 3 is used to assemble shell heads onto the dried shell to form a columnar product. The detection device 5 is used to perform visual inspection on the assembled columnar product. The boxing device 6 is used to box the qualified columnar products.
[0036] Production Process: After being loaded into the shell loading device 1, the shells are sent to the shell drying device 2 for drying. The dried shells are then conveyed to the columnar product assembly device 3, where shell heads are assembled onto the dried shells to form columnar products. The assembled columnar products are then sent to the columnar product drying device 4 for drying, followed by visual inspection by the inspection device 5. Qualified columnar products are then packaged by the boxing device 6. This columnar product production system uses a two-stage drying process, improving production efficiency. Furthermore, the placement of the inspection device 5 after the columnar product drying device 4, allowing for inspection after drying, is a rational layout that avoids packaging defective products.
[0037] In this embodiment, the columnar product drying device 4 includes a drying box 41, a drying drum 411 and a drying rotation drive mechanism 412 for driving the drying drum 411 to rotate are provided inside the drying box 411, a plurality of drying material slots 413 are provided on the peripheral wall of the drying drum 411 and arranged at intervals around the central axis, and a drying inlet 414 and a drying outlet 415 are provided on the drying box 41. The columnar product drying device 4 also includes a cooling box 42, which contains a cooling drum 421 and a cooling rotation drive mechanism 422 for driving the cooling drum 421 to rotate. The peripheral wall of the cooling drum 421 is provided with a plurality of cooling material slots 423 arranged at intervals around the central axis. The cooling box 42 is provided with a cooling inlet 424 and a cooling outlet 425. The cooling inlet 424 is connected to the drying outlet 415. The drying box 41 is provided with a first pushing mechanism 43 for pushing the shell on the drying material slot 413 onto the cooling material slot 423 through the drying outlet 415 and the cooling inlet 424.
[0038] Drying process of columnar products: The drying rotary drive mechanism 412 drives the drying drum 411 to rotate one drying tray 413 at a time, so that each drying tray 413 is aligned with the drying inlet 414 in sequence. The columnar products enter the drying trays 413 from the drying inlet 414. After the columnar products are placed in each drying tray 413, the drying rotary drive mechanism 412 drives the drying drum 411 to rotate, which in turn drives the columnar products to rotate, so that the columnar products are dried while rotating. After drying is completed, each drying tray 413 is aligned with the drying outlet 415 in sequence, and each cooling tray 423 is aligned with the cooling inlet in sequence. With the inlet 424 aligned, the cylindrical products in each drying tray 413 enter the cooling tray 423 sequentially through the drying outlet 415 and cooling inlet 424. After the cylindrical products are placed in each cooling tray 423, the cooling rotation drive mechanism 422 drives the cooling drum 421 to rotate, causing the cylindrical products to rotate and cool simultaneously. After cooling, the cooling rotation drive mechanism 422 drives the cooling drum 421 to rotate, aligning the cooling trays 423 sequentially with the cooling outlet 425, and the cylindrical products in each cooling tray 423 are output sequentially through the cooling outlet 425. This cylindrical product drying and cooling device achieves rapid drying and cooling of cylindrical products (such as bullets) through the combination of the drying box 41 and the cooling box 42, requiring no manual intervention, exhibiting a high degree of mechanization, and greatly improving production efficiency.
[0039] In this embodiment, as Figure 2 and Figure 3 As shown, the drying inlet 414 is located on the side wall of the drying chamber 41 facing the cooling chamber 42, and the cooling outlet 425 is located on the side wall of the cooling chamber 42 facing the drying chamber 41. This arrangement allows the columnar product to enter from the bottom of the cooling chamber 42 and exit from the top of the drying chamber 41, making full use of the space. Furthermore, the columnar product enters and exits in the same direction, which facilitates the overall layout.
[0040] In this embodiment, the drying outlet 415 is located at the top of the drying chamber 41 facing the cooling chamber 42, the cooling inlet 424 is located at the bottom of the cooling chamber 42 facing the drying chamber 41, the drying inlet 414 is located at the bottom of the side wall of the drying chamber 41, and the cooling outlet 425 is located at the top of the side wall of the cooling chamber 42. This layout is reasonable, occupies little space, and enables the conveying of columnar products from a low to a high position.
[0041] In this embodiment, the cooling box 42 is provided with a second pushing mechanism 44, which is used to push the shell on the cooling material slot 423 out through the cooling outlet 425. The drying inlet 414 is located at the bottom of the side wall of the drying box 41, the drying outlet 415 is located at the top of the side wall of the drying box 41, and the cooling outlet 425 is located at the bottom and top of the side wall of the cooling box 42. The second pushing mechanism 44 is used to push the columnar product on the cooling material slot 423 out through the cooling outlet 425, so that the columnar product can be output from the cooling outlet 425.
[0042] In this embodiment, as Figure 7 and Figure 8 As shown, the drying tray 413 is located on the outer side of the peripheral wall of the drying drum 411, and the drying tray 413 matches the bottom of the cylindrical product. Specifically, the opening of the drying tray 413 matches the bottom of the cylindrical product, so that the bottom of the cylindrical product can be hung in the opening of the drying tray 413, and the entire cylindrical product is located inside the drying tray 413, preventing the cylindrical product from tipping over or falling, and ensuring that the cylindrical product can be arranged normally and orderly. Furthermore, the drying drum 411 with this cage structure effectively utilizes space, improves conveying efficiency, and allows the cylindrical product to rotate 360° for all-round drying.
[0043] In this embodiment, as Figure 9 and Figure 10 As shown, the cooling tray 423 is located on the outer side of the peripheral wall of the cooling drum 421. The depth of the cooling tray 423 is greater than the length of the cylindrical product, and the opening of the cooling tray 423 matches the bottom of the cylindrical product. In this way, the bottom of the cylindrical product can be hung in the cooling tray 423, while the top of the cylindrical product extends out of the cooling tray 423, preventing the cylindrical product from tipping over or falling, and ensuring that the cylindrical products are arranged normally and orderly. Furthermore, the cooling drum 421 with this cage-like structure effectively utilizes space, improves conveying efficiency, and allows the cylindrical product to rotate 360° for all-around cooling.
[0044] In this embodiment, as Figure 1 As shown, a feeding flipping device 7 for flipping the columnar product into an inverted state is provided at the drying feed inlet 414, and a discharging flipping mechanism 8 for flipping the columnar product into an upright state is provided at the cooling discharge outlet 425.
[0045] In this embodiment, as Figure 11As shown, the feeding and turning device 7 includes a rotatably mounted feeding and turning frame 71 and a feeding rotation drive mechanism 72 for driving the feeding and turning frame 71 to rotate. The feeding and turning frame 71 is provided with at least one pair of feeding slots 73 symmetrical about the rotation center of the feeding and turning frame 71. The side of the feeding and turning frame 71 is provided with a feeding guide groove 74 and a discharge guide groove 75 that docks with the drying feed inlet 414. The two pairs of feeding slots 73 are alternately docked with the feeding guide groove 74 and the discharge guide groove 75. The feeding and turning device 7 also includes a third pushing mechanism 76 for pushing the upright columnar product on the feeding guide groove 74 to the feeding slot 73 and a fourth pushing mechanism 77 for pushing the inverted columnar product on the feeding slot 73 to the discharge guide groove 75. First, the feeding slot 73 connects with the feeding guide slot 74. The third pushing mechanism 76 pushes the upright columnar product on the feeding guide slot 74 onto the feeding slot 73. Then, the feeding rotation drive mechanism 72 drives the feeding flipping frame 71 to rotate 180°, so that the feeding slot 73 flips 180° and aligns with the discharge guide slot 75, thereby making the upright columnar product inverted and aligned with the discharge guide slot 75. Then, the fourth pushing mechanism 77 pushes the inverted columnar product on the feeding slot 73 onto the discharge guide slot 75. The feeding tilting frame 71 is provided with at least one pair of feeding slots 73 symmetrical about the rotation center of the feeding tilting frame 71. In this way, the two pairs of feeding slots 73 alternately connect with the feeding guide groove 74 and the discharging guide groove 75. While the third pushing mechanism 76 pushes the upright columnar product on the feeding guide groove 74 to the feeding slot 73, the fourth pushing mechanism 77 can push the inverted columnar product on the feeding slot 73 to the discharging guide groove 75, thereby improving production efficiency.
[0046] In this embodiment, as Figure 12As shown, the discharge tilting mechanism 8 includes a rotatably mounted discharge tilting frame 81 and a discharge rotation drive mechanism 82 for driving the discharge tilting frame 81 to rotate. The discharge tilting frame 81 is provided with at least one pair of discharge seats 83 symmetrical about the rotation center of the discharge tilting frame 81. Each discharge seat 83 is provided with a row of discharge clamping grooves 84. The side of the discharge tilting frame 81 is provided with a transverse shifting seat 85 and an oblique transfer mechanism 86. The transverse shifting seat 85 is provided with a row of receiving grooves 851 for docking with the cooling discharge port 425 and is connected to a transverse drive mechanism 87. The discharge clamping grooves 84 on the two pairs of discharge seats 83 alternately dock with the receiving grooves 851 on the transverse shifting seat 85 and the oblique transfer mechanism 86. The discharge tilting mechanism 8 also includes a fifth pushing mechanism 88 for pushing the upright columnar product on the discharge clamping groove 84 to the oblique transfer mechanism 86. After being conveyed from the cooling outlet 425, the inverted columnar product enters the receiving trough 851 and is guided by the receiving trough 851 to the corresponding discharge clamping trough 84. Then, the discharge rotation drive mechanism 82 drives the discharge flipping frame 81 to rotate 180°, causing the discharge clamping trough 84 to flip 180°. The discharge clamping trough 84 flips from the inverted state to the upright state and docks with the inclined transfer mechanism 86. The fifth pushing mechanism 88 then pushes the upright columnar product on the discharge clamping trough 84 onto the inclined transfer mechanism 86. The discharge tilting frame 81 is provided with at least one pair of discharge seats 83 symmetrical about the rotation center of the discharge tilting frame 81. In this way, the discharge slots 84 on the two pairs of discharge seats 83 alternately connect with the receiving slots 851 on the transverse shifting seat 85 and the inclined transfer mechanism 86. While the inverted columnar product is introduced from the receiving slot 851 into the corresponding discharge slot 84, the fifth pushing mechanism 88 can push the upright columnar product on the discharge slot 84 onto the inclined transfer mechanism 86, thereby improving production efficiency.
[0047] In this embodiment, as Figure 4 As shown, the shell loading device 1 includes a shell conveying mechanism 11 and a shell loading mechanism 12. A sixth pushing mechanism 13 is provided between the shell loading mechanism 12 and the shell conveying mechanism 11 for pushing the loaded shells onto the shell conveying mechanism 11. A seventh pushing mechanism 14 is provided between the shell conveying mechanism 11 and the shell drying device 2 for pushing the shells on the shell conveying mechanism 11 into the shell drying device 2. After the shells are loaded by the shell loading mechanism 12, they are pushed onto the shell conveying mechanism 11 by the sixth pushing mechanism 13. The shell conveying mechanism 11 transports the loaded shells to a position aligned with the drying inlet 414, and the seventh pushing mechanism 14 pushes the shells on the shell conveying mechanism 11 into the shell drying device 2.
[0048] In this embodiment, as Figure 5As shown, a product tilting device 9 is provided between the shell drying device 2 and the cylindrical product assembly device 3. The product tilting device 9 includes a shell hanging conveyor mechanism 91 and a horizontal conveyor mechanism 92 connected to each other. The shell hanging conveyor mechanism 91 is connected to the shell drying device 2. A blocking and tilting part 93 is provided between the shell hanging conveyor mechanism 91 and the horizontal conveyor mechanism 92 to block the bottom of the shell and tilt the shell onto the horizontal conveyor mechanism 92. The horizontal conveyor mechanism 92 is connected to the cylindrical product assembly device 3. The shell is tilted upside down on the shell hanging conveyor mechanism 91 for inverted conveying. When it reaches the blocking and tilting part 93, the bottom of the shell is blocked by the blocking and tilting part 93, causing the shell to tilt onto the horizontal conveyor mechanism 92, where it is then tilted horizontally for conveying.
[0049] In this embodiment, as Figure 6 As shown, a guiding device 94 is provided between the horizontal conveying mechanism 92 and the cylindrical product assembly device 3. The guiding device 94 includes a material distribution mechanism 941, at least two downwardly inclined guide pipes 942, and a material blocking and speed reducing mechanism 943 provided on the guide pipes 942. The top end of the guide pipe 942 is connected to the horizontal conveying mechanism 92 through the material distribution mechanism 941, and the bottom end is connected to the cylindrical product assembly device 3. The shell is horizontally conveyed (bottom end facing forward) by the horizontal conveying mechanism 92 to the guide pipe 942, then slides down along the guide pipe 942, and falls upright from the bottom end of the guide pipe 942. The material blocking and speed reducing mechanism 943 is used to reduce the sliding speed of the shell in the guide pipe 942.
[0050] While the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the invention. Any person skilled in the art can make many possible variations and modifications to the technical solutions of the present invention, or modify them into equivalent embodiments, without departing from the scope of the present invention. Therefore, any simple modifications, equivalent changes, and modifications made to the above embodiments based on the technical essence of the present invention, without departing from the scope of the present invention, should fall within the protection scope of the present invention.
Claims
1. A system for producing a columnar product, characterized by: The device includes, in sequence, a shell loading device (1), a shell drying device (2), a columnar product assembly device (3), a columnar product drying device (4), a detection device (5), and a boxing device (6). The shell loading device (1) is used to load materials into the shell and transport the shell to the shell drying device (2). The shell drying device (2) is used to dry the shell after loading. The columnar product assembly device (3) is used to assemble shell heads onto the dried shell to form columnar products. The detection device (5) is used to perform visual inspection on the assembled columnar products. The boxing device (6) is used to box the qualified columnar products. The columnar product drying device (4) includes a drying box (41) and a cooling box (42). The drying box (41) is provided with a drying inlet (414) and a drying outlet (415). The cooling box (42) is provided with a cooling inlet (424) and a cooling outlet (425). The cooling inlet (424) is connected to the drying outlet (415). The cooling box (42) is provided with a cooling drum (421) and a cooling rotation drive mechanism (422) for driving the cooling drum (421) to rotate. The peripheral wall of the cooling drum (421) is provided with a plurality of cooling grooves (423) arranged at intervals around the central axis.
2. The columnar product production system according to claim 1, characterized in that: The drying chamber (41) is provided with a drying drum (411) and a drying rotation drive mechanism (412) for driving the drying drum (411) to rotate. The drying drum (411) has multiple drying material slots (413) arranged at intervals around the central axis on its peripheral wall.
3. The columnar product production system according to claim 2, characterized in that: The drying box (41) is provided with a first pushing mechanism (43) for pushing the shell on the drying material tray (413) onto the cooling material tray (423) through the drying outlet (415) and the cooling inlet (424).
4. The columnar product production system according to claim 3, characterized in that: The cooling box (42) is provided with a second pushing mechanism (44) for pushing the shell on the cooling material slot (423) out through the cooling outlet (425). The drying inlet (414) is located at the bottom of the side wall of the drying box (41), the drying outlet (415) is located at the top of the side wall of the drying box (41), the cooling outlet (425) is located at the bottom of the side wall of the cooling box (42), and the cooling outlet (425) is located at the top of the side wall of the cooling box (42).
5. The columnar product production system according to claim 3, characterized in that: The drying inlet (414) is provided with a feeding flipping device (7) for flipping the columnar product into an inverted state, and the cooling outlet (425) is provided with a discharging flipping mechanism (8) for flipping the columnar product into an upright state.
6. The columnar product production system according to claim 5, characterized in that: The feeding and turning device (7) includes a rotatably mounted feeding and turning frame (71) and a feeding rotation drive mechanism (72) for driving the feeding and turning frame (71) to rotate. The feeding and turning frame (71) is provided with at least one pair of feeding slots (73) symmetrical about the rotation center of the feeding and turning frame (71). The side of the feeding and turning frame (71) is provided with a feeding guide groove (74) and a discharge guide groove (75) that connects with the drying feed inlet (414). The two pairs of feeding slots (73) alternately connect with the feeding guide groove (74) and the discharge guide groove (75). The feeding and turning device (7) also includes a third pushing mechanism (76) for pushing the upright columnar product on the feeding guide groove (74) to the feeding slot (73) and a fourth pushing mechanism (77) for pushing the inverted columnar product on the feeding slot (73) to the discharge guide groove (75).
7. The columnar product production system according to claim 5, characterized in that: The discharge tilting mechanism (8) includes a rotatably mounted discharge tilting frame (81) and a discharge rotation drive mechanism (82) for driving the discharge tilting frame (81) to rotate. The discharge tilting frame (81) is provided with at least one pair of discharge seats (83) symmetrical about the rotation center of the discharge tilting frame (81). Each discharge seat (83) is provided with a discharge slot (84). A transverse sliding seat (85) and an oblique transfer mechanism (86) are provided on the side of the discharge tilting frame (81). (85) is provided with a row of receiving grooves (851) for docking with the cooling outlet (425) and connected to a transverse drive mechanism (87). The discharge slots (84) on the two pairs of discharge seats (83) are alternately docked with the receiving grooves (851) on the transverse seat (85) and the inclined transfer mechanism (86). The discharge flipping mechanism (8) also includes a fifth pushing mechanism (88) for pushing the upright columnar product on the discharge slots (84) to the inclined transfer mechanism (86).
8. The columnar product production system according to any one of claims 1 to 7, characterized in that: The shell loading device (1) includes a shell conveying mechanism (11) and a shell loading mechanism (12). A sixth pushing mechanism (13) is provided between the shell loading mechanism (12) and the shell conveying mechanism (11) for pushing the loaded shell onto the shell conveying mechanism (11). A seventh pushing mechanism (14) is provided between the shell conveying mechanism (11) and the shell drying device (2) for pushing the shell on the shell conveying mechanism (11) into the shell drying device (2).
9. The columnar product production system according to any one of claims 1 to 7, characterized in that: A product tilting device (9) is provided between the shell drying device (2) and the columnar product assembly device (3). The product tilting device (9) includes a shell hanging conveyor (91) and a horizontal conveyor (92) connected to each other. The shell hanging conveyor (91) is connected to the shell drying device (2). A blocking and tilting part (93) is provided between the shell hanging conveyor (91) and the horizontal conveyor (92) to block the bottom of the shell so that the shell is tilted flat onto the horizontal conveyor (92). The horizontal conveyor (92) is connected to the columnar product assembly device (3).
10. The columnar product production system according to claim 9, characterized in that: A guiding device (94) is provided between the horizontal conveying mechanism (92) and the columnar product assembly device (3). The guiding device (94) includes a material distribution mechanism (941), at least two downward inclined guide pipes (942), and a material blocking and speed reducing mechanism (943) provided on the guide pipes (942). The top end of the guide pipes (942) is connected to the horizontal conveying mechanism (92) through the material distribution mechanism (941), and the bottom end is connected to the columnar product assembly device (3).