Fully automatic sealing production line for jars

Abstract

The present invention discloses a fully automatic mud sealing production line for wine jars, and the technical scheme thereof includes: a transfer platform for transferring wine jars to different stations, and a plurality of positioning devices are arranged on the transfer platform; an in-and-out station for feeding wine jars in and out; a loading station including a spinning device and a feeder, the spinning device including a material pipe with an opening at the bottom, a lifting guide cylinder sleeved on the lower part of the material pipe, and a first spinning rod arranged in the material pipe, and the feeder is used to transport mud to the material pipe; a shaping station including a lifting former, the former is located above the transfer platform and is used to press and shape the mud head. In addition, a drying station and a height setting station can be further expanded and set, the drying station is used to dry the mud head, and the height setting station includes a connecting frame and a storage bin that can slide laterally, the bottom of the storage bin is provided with an opening facing the mud head, and the opening of the storage bin is provided with a cutting plate that can slide laterally for cutting the mud head, so as to facilitate standardized production.

Description

Technical Field

[0001] The invention relates to the technical field of wine jar packaging equipment, in particular to a full-automatic mud sealing production line for jars. Background Art

[0002] In traditional crafts, wine jars are generally sealed with yellow mud, gypsum, etc., which is commonly known as "sealing mud". Since the shape of the jar mouth of the wine jar is relatively complex and the sizes are different, and the mud itself has strong fluidity, the sealing of the wine jar is often done manually. Workers need to perform a whole set of operations such as manual mud taking, filling, leveling, and drying to complete the mud sealing of the wine jar, and there must be no interruption, otherwise it will easily lead to unqualified mud sealing. The manual method greatly affects the speed of mud sealing of the wine jar and restricts production efficiency. In addition, during the manual mud sealing process of the wine jar, due to the fluidity of the mud, the mud head formed by the manual mud sealing is very easy to split or fall off, and the defective rate is high. Summary of the invention

[0003] The purpose of the present invention is to solve the problem that the efficiency of manual mud sealing of wine jars in the prior art is low, and the mud head formed by the automatic mud sealing equipment for wine jars is easy to split or fall off, resulting in a high defective rate.

[0004] The solution of the present invention is to provide a fully automatic mud sealing production line for jars, including:

[0005] A transfer platform, on which a plurality of positioning devices for fixing wine jars are provided, and the transfer platform is used to transfer the wine jars to different workstations;

[0006] An entry and exit station, the entry and exit station is used for the wine jars to enter and exit;

[0007] A loading station, the loading station includes a spinning device and a feeder, the spinning device includes a material pipe located above the transfer table, a lifting guide cylinder sleeved on the lower part of the material pipe, and a first spinning rod arranged in the material pipe and capable of rotating and pressing downward, the feeder is used to transport the mud material to the material pipe, and an opening is provided at the bottom of the material pipe;

[0008] The secondary extrusion molding station comprises a lifting shaper, which is located above the transfer platform and is used to contact the mud head to achieve secondary extrusion molding.

[0009] Compared with the prior art, the beneficial effects of the present invention are as follows: through the setting of the transfer table, the wine jars can be automatically and efficiently transferred between different workstations; the loading station, through the coordinated operation of the material pipe, the conduction and the first spinning rod, enables the mud material to be accurately transported to the jar mouth and form a mud head with a preliminary shape, and further the mud head is pressed and formed by the former in the secondary extrusion and molding station, which solves the problem of splitting or falling off of the mud head and effectively improves the quality of the mud head.

[0010] Preferably, a drying station is provided between the secondary extrusion shaping station and the entry and exit station, and the drying station includes a lifting drying cover located above the transfer platform, and a guide channel is provided in the drying cover to dry the mud head. With this structure, the mud head can be quickly dried and formed, which not only improves production efficiency, but also effectively prevents the mud head from collapsing during subsequent transportation.

[0011] Preferably, a height setting station is provided between the secondary extrusion shaping station and the drying station, and the height setting station includes a lifting connection frame located above the transfer platform, and a storage bin that can slide laterally is provided on the connection frame, and an opening facing the mud head is provided at the bottom of the storage bin, and a cutting board that can slide laterally for cutting the mud head is provided at the opening of the storage bin. Since there are differences in the heights of wine jars in practice, after adopting this structure, even wine jars of different heights can form a uniform height under the cutting action of the cutting board, which is convenient for standardized production. At the same time, the excess mud cut off is temporarily stored in the storage bin for subsequent recycling.

[0012] Preferably, a second transverse power source and two semi-annular laterally slidable shaping covers are provided on both sides of the lower part of the connecting frame, and the two shaping covers are driven by the second transverse power source to close together to form a ring. With this structure, the two shaping covers can press the sides of the mud head to prevent the mud head itself from deforming when the cutting board is cutting.

[0013] Preferably, a shaping and scraping station is provided between the height setting station and the drying station, and the shaping and scraping station comprises a lifting rotating scraper located above the transfer platform, and a scraper blade is provided on the outer edge of the rotating scraper blade. After adopting this structure, the rotating scraper disc will rotate and contact with the upper end surface of the mud head to achieve leveling, and the scraper blade will scrape the side wall of the mud head flat.

[0014] Preferably, a marking station is provided between the shaping and scraping station and the drying station, and the marking station includes a sliding assembly, a printing pad groove, and a lifting pressing plate, all of which are located above the transfer platform. The printing pad groove is located on the side of the wine jar, and the sliding assembly is used to drive the pressing plate to slide between the printing pad groove and the jar mouth. With this structure, the pressing plate can automatically and quickly mark the mud head, replacing manual marking and improving efficiency.

[0015] Preferably, the loading station further comprises a baffle plate arranged below the material pipe, and the baffle plate can slide laterally to seal the bottom opening of the material pipe. The baffle plate is mainly arranged for mud materials with high fluidity to prevent the mud materials from leaking out of the material pipe when the wine jar is transferred between different stations.

[0016] Preferably, the former includes a lifting support frame, a lateral power source is provided on the support frame, two semi-annular pressure covers are slidably connected to the two sides of the support frame, the two pressure covers are driven by the lateral power source to close, and a second spinning rod that can rotate and press down is provided between the two pressure covers. After adopting this structure, the coordinated operation of the pressure cover and the second spinning rod can press the mud head in all directions, so that the mud head is fully compacted.

[0017] Preferably, the transfer platform includes a circular flat plate and a drive motor, the drive motor is used to drive the flat plate to rotate horizontally around the center, the positioning device is distributed circumferentially on the transfer platform, and all workstations are distributed circumferentially around the transfer platform. After adopting this structure, the floor space occupied by the transfer platform is greatly reduced, and the operation is stable.

[0018] Preferably, the positioning device comprises a stand fixed on the transfer platform, a positioning ring slidably connected to the stand in the vertical direction, and a clamp-like clamp formed by two clamping rods hinged to the transfer platform at the middle part, the front ends of the two clamping rods are semi-circular, and a spring is connected between the rear ends of the two clamping rods to keep the front ends of the clamping rods in a closed state. With this structure, the wine jar can not only be effectively fixed on the transfer platform, but also can be quickly loaded and unloaded to achieve the replacement of the wine jar.

[0019] Preferably, an annular recovery groove is provided in the middle of the column, and a guide groove is provided on the side of the positioning ring, which is inclined opposite to the recovery groove. Since excess mud will generally fall when mud heads in different workstations are processed, the excess mud will fall into the positioning ring and enter the recovery groove on the column along the guide groove, thereby realizing recycling and avoiding the pollution problem caused by the direct fall of the material.

[0020] Preferably, the entry and exit station includes a lifting clamp, the clamp includes two blocks and a driver, the driver is used to drive the two blocks to slide laterally, and the two blocks are used to drive the rear ends of the two clamping rods to separate or close. After adopting this structure, the clamp can automatically control the clamping rods to separate or close, thereby realizing the automatic loading and unloading of the wine jar.

[0021] Preferably, the entry and exit station further includes a lifting manipulator, which is located above the positioning ring and is used to drive the positioning ring to move up and down.

[0022] Preferably, the entry and exit stations include an entry station and an exit station of the same structure, a roller is provided on the side of the positioning ring, and a horizontally rotatable transfer bar is provided between the entry station and the exit station, and the transfer bar is located above the transfer platform and is used to support the roller. After adopting this structure, since the entry station and the exit station are independent of each other, the efficiency of entering and exiting the wine jars is further improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 It is a top view schematic diagram of a fully automatic mud sealing production line for altars of the present invention;

[0024] Figure 2 A schematic diagram of a fully automatic mud sealing production line for altars according to the present invention from perspective a;

[0025] Figure 3 This is a schematic diagram of a fully automatic mud sealing production line for altars of the present invention from perspective b;

[0026] Figure 4 This is a schematic diagram from a perspective C of a fully automatic mud sealing production line for altars of the present invention;

[0027] Figure 5 For along Figure 1 Schematic cross-sectional view of the AA section line;

[0028] Figure 6 It is a cross-sectional schematic diagram of a height-fixing station of a fully automatic mud sealing production line for altars of the present invention;

[0029] Figure 7 A schematic diagram of a clamp for a fully automatic mud sealing production line for jars according to the present invention.

[0030] In the attached drawings: 1-transfer platform; 110-column; 111-recovery slot; 120-stand; 130-positioning ring; 131-guide slot; 132-roller; 140-clamping rod; 141-spring; 150-transfer bar; 160-mounting plate;

[0031] 2-entry and exit station; 210-entry station; 220-exit station; 230-manipulator; 240-gripper; 241-stopper;

[0032] 3-feeding station; 310-feeding tube; 320-guide cylinder; 330-first spinning rod; 340-baffle; 350-feeder;

[0033] 4-secondary extrusion and shaping station; 410-support frame; 420-pressing cover; 430-second spinning rod;

[0034] 5-drying station; 510-drying hood;

[0035] 6-height setting station; 610-connecting frame; 620-storage bin; 630-cutting board; 640-forming cover;

[0036] 7-shaping and scraping station; 710-rotating scraper; 720-scraper;

[0037] 8-printing station; 810-sliding assembly; 820-ink pad slot; 830-pressing plate;

[0038] 9-wine jar; 910-mud. DETAILED DESCRIPTION

[0039] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0040] See also Figure 1-Figure 4 The embodiment of the present invention provides a fully automatic mud sealing production line for altars, comprising:

[0041] A transfer platform 1, on which a plurality of positioning devices for fixing the wine jars 9 are provided, and the transfer platform 1 is used to transfer the wine jars 9 to different workstations;

[0042] An entry and exit station 2, the entry and exit station 2 is used for the wine jar 9 to enter and exit;

[0043] A loading station 3, the loading station 3 includes a spinning device and a feeder 350, the spinning device includes a material pipe 310 located above the transfer platform 1, a lifting guide cylinder 320 sleeved on the lower part of the material pipe 310, and a first spinning rod 330 arranged in the material pipe 310 and capable of rotating downward pressing, the feeder 350 is connected to the upper part of the material pipe 310 and is used to transport the mud material to the material pipe 310, and the bottom of the material pipe 310 is provided with an opening;

[0044] The secondary extrusion and molding station 4 includes a lifting shaper, which is located above the transfer platform 1 and is used to contact the mud head 910 to achieve compression molding.

[0045] Compared with the prior art, the beneficial effects of the present invention are as follows: through the setting of the transfer table 1, the wine jar 9 can be automatically and efficiently transferred between different stations; the loading station 3, through the coordinated operation of the material pipe 310, the conduction and the first spinning rod 330, enables the mud material to be accurately transported to the jar mouth and form a mud head 910 with a preliminary shape, and further the mud head 910 is pressed and formed by the former in the secondary extrusion and molding station 4, which solves the problem of splitting or falling off of the mud head 910 and effectively improves the quality of the mud head 910.

[0046] The transfer table 1 can be linear, in which case different workstations are arranged linearly along the transfer table 1, and the transfer table 1 drives the wine jars 9 to move between different workstations through a conveyor belt; it can also be circular, in which case different workstations are arranged in a circular shape along the transfer table 1. In this embodiment, the transfer table 1 includes a circular flat plate and a drive motor, and the flat plate rotates horizontally around the center under the drive of the drive motor. An upwardly arranged column 110 is provided in the middle of the transfer table 1, and a mounting plate 160 is horizontally fixed to the upper end of the column 110. The components of all workstations are circumferentially mounted on the mounting plate 160, and all positioning devices are circumferentially distributed on the flat plate of the transfer table 1. After adopting this structure, the floor space occupied by the transfer table 1 is greatly reduced, and the operation is stable. It should be understood that the mounting plate 160 can also be directly fixedly installed through other external support structures, and is not limited to being fixed on the upper end of the column 110.

[0047] The material tube 310 of the loading station 3 is vertically mounted on the mounting plate 160, and the first spinning rod 330 is driven by a vertical cylinder and a motor disposed on the mounting plate 160 to rotate and press down in the material tube 310, and the guide cylinder 320 is also driven by another vertical cylinder disposed on the mounting plate 160 to achieve lifting. It should be noted that all the rotation and pressing mentioned in the present invention refer to rotating horizontally around the center while moving downward.

[0048] It should be noted that when clay with low fluidity is used, the clay in the material tube 310 can only move downward under the push of the first spinning rod 330. When clay with high fluidity is used, the clay in the material tube 310 may flow out directly from the bottom opening of the material tube 310 due to gravity. At this time, the loading station 3 also includes a baffle 340 arranged below the material tube 310. The baffle 340 is driven by a horizontally arranged cylinder to slide laterally to achieve the blocking of the bottom opening of the material tube 310, so as to prevent the clay from leaking out of the material tube 310 when the wine jar 9 is transferred between different stations.

[0049] Combination Figure 5As shown, the former of this embodiment includes a lifting support frame 410, which is driven by a vertical cylinder arranged on the mounting plate 160 to achieve lifting. A first transverse power source is provided on the support frame 410. In this embodiment, the first transverse power source is two horizontally oppositely arranged cylinders. Two semi-annular pressure covers 420 are slidably connected to both sides of the support frame 410, and the two pressure covers 420 are driven by the first transverse power source to achieve closing or separation. When the two pressure covers 420 are closed, they just form a ring, thereby compacting the side wall of the mud head 910. A second spinning rod 430 that can be rotated and pressed down is provided between the two pressure covers 420. The second spinning rod 430 is driven by a vertical cylinder and a motor arranged on the mounting plate 160 to rotate and press down, thereby compacting and leveling the upper end surface of the mud head 910. After adopting this structure, the coordinated operation of the pressure cover 420 and the second spinning rod 430 can fully press the mud head 910, so that the mud head 910 is fully compacted.

[0050] As an extension of this embodiment, a drying station 5 is further provided between the secondary extrusion shaping station 4 and the entry and exit station 2. The drying station 5 includes a cylindrical drying hood 510, which is driven by a vertical cylinder arranged on the mounting plate 160 to achieve lifting. The lower end surface of the drying hood 510 is provided with a groove matching the mud head 910, and a plurality of guide channels are provided on the groove wall of the groove, and the guide channels are connected to an external hot air blower. The openings of the plurality of guide channels are distributed in a mesh shape on the groove wall of the groove. In the prior art, the mud head 910 generally needs to be placed in an air drying room for more than 20 hours before it can be dried, and this embodiment is provided with a drying station 5. The mud head 910 can be quickly dried and formed, which further improves the production efficiency, and can also effectively prevent the mud head from collapsing during subsequent transportation.

[0051] Combination Figure 6As shown, as an extension of this embodiment, a height setting station 6 is further provided between the secondary extrusion shaping station 4 and the drying station 5. The height setting station 6 includes a lifting connecting frame 610, which is driven by a vertical cylinder arranged on the mounting plate 160 to achieve lifting. A material storage bin 620 that can slide radially along the transfer platform 1 is provided on the connecting frame 610. The material storage bin 620 can be square, circular or other shapes, and an opening is provided at the bottom of the material storage bin 620. The material storage bin 620 is driven by a horizontally arranged cylinder to achieve lateral movement, so that the opening of the material storage bin 620 slides between the top of the jar mouth and the outside of the transfer platform 1. A cutting plate 630 that can slide radially along the transfer platform 1 is provided at the bottom of the material storage bin 620, and the cutting plate 630 is driven by another horizontally arranged cylinder to achieve lateral movement, and the cutting plate 630 moves close to the opening at the bottom of the material storage bin 620, so that the cutting plate 630 forms a closure or opening of the bottom opening of the material storage bin 620. When the wine jar 9 moves to the height setting station 6, the opening of the storage bin 620 is located above the mud head 910, and the connecting frame 610 descends so that the excess part of the top of the mud head 910 enters the storage bin 620. At this time, the cutting plate 630 slides toward the mud head 910 and cuts, and the cut waste is temporarily stored in the storage bin 620; then the storage bin 620 slides outward so that the opening of the storage bin 620 is located outside the transfer platform 1, and the cutting plate 630 is reset so that the waste in the storage bin 620 falls and is recycled by the circulation system. Since there are differences in the height of the wine jars 9 in practice, after adopting this structure, even wine jars 9 of different heights can form a uniform height under the cutting action of the cutting plate 630, which is convenient for standardized production. At the same time, the cut waste can be recycled to avoid waste. The two sides of the lower part of the connecting frame 610 are also provided with a second transverse power source and two semi-circular laterally slidable shaping covers 640, which are driven by the second transverse power source to close together to form a ring. The two shaping covers 640 can suppress the sides of the mud head 910 to prevent the mud head 910 from deforming when the cutting plate 630 is cutting.

[0052] As an extension of this embodiment, a shaping and scraping station 7 is further provided between the height setting station 6 and the drying station 5. The shaping and scraping station 7 includes a lifting type rotating scraper 710, which is driven by a vertical cylinder and a motor provided on the mounting plate 160 to achieve rotation and downward pressing. The outer edge of the rotating scraper 710 is provided with a scraper blade 720 provided vertically downward, and the scraper blade 720 scrapes the side wall of the mud head 910 flat as the rotating scraper 710 rotates. After adopting this structure, the rotating scraper 710 contacts the upper end surface of the mud head 910 and achieves flatness, while the scraper blade 720 scrapes the side wall of the mud head 910 flat, ensuring that the surface of the mud head 910 after cutting at the height setting station 6 is smoother.

[0053] As an extension of this embodiment, a marking station 8 is also provided between the shaping and scraping station 7 and the drying station 5, and the marking station 8 includes a sliding assembly 810, a printing pad groove 820 and a lifting type stamping plate 830. In this embodiment, the sliding assembly 810 includes a slide rail and a slide table, and the slide table is driven by a horizontal cylinder to move laterally along the slide rail. The stamping plate 830 is fixed on the slide table, and slides between the printing pad groove 820 and the jar mouth under the drive of the slide table. When the wine jar 9 moves to the marking station 8, the stamping plate 830 is first driven by the slide table to the top of the printing pad groove 820, and then the stamping plate 830 descends to contact the printing pad, and then the stamping plate 830 is reset, and the slide table drives the stamping plate 830 to move laterally to the top of the jar mouth, and then the stamping plate 830 descends to contact the mud head 910, so that the mud head 910 is automatically and quickly printed, replacing manual printing and improving efficiency.

[0054] Combination Figure 7 As shown, the positioning device of this embodiment includes a stand 120 fixed on a flat plate, a positioning ring 130 slidably connected to the stand 120 in a vertical direction, and a clamp-like clamp formed by hinged middle parts of two clamp rods 140 to the flat plate, the front ends of the two clamp rods 140 are semi-annular, and a spring 141 is connected between the rear ends of the two clamp rods 140 so that the front ends of the clamp rods 140 remain in a closed state. When it is necessary to fix the wine jar 9, the front ends of the two clamp rods 140 are closed, and the positioning ring 130 slides to the middle part of the wine jar 9, and the wine jar 9 is effectively positioned; when it is necessary to remove the wine jar 9, the front ends of the two clamp rods 140 are separated, and the positioning ring 130 slides to the top of the wine jar 9, and the wine jar 9 can be taken out. With this structure, the wine jar 9 can not only be stably fixed on the transfer platform 1, but also can be quickly loaded and unloaded to achieve the replacement of the wine jar 9.

[0055] Considering the waste problem when the mud head 910 is processed between different stations, this embodiment further provides an annular recovery groove 111 in the middle of the column 110, and the side of the positioning ring 130 is provided with a guide groove 131 that is inclined opposite to the recovery groove 111. When the mud head 910 in different stations is processed, the excess mud will fall into the positioning ring 130 and enter the recovery groove 111 on the column 110 along the guide groove 131, thereby realizing recycling and avoiding the pollution problem caused by the direct fall of waste.

[0056] In order to further improve the level of automation, the entry and exit station 2 of this embodiment also includes a lifting clamp 240, which is driven by a vertical cylinder fixed on the column 110 to achieve lifting. The clamp 240 includes two blocks 241 and a driver, and the driver is composed of two cylinders arranged in back to back. The two blocks 241 are respectively arranged at both ends of the driver, and are separated or closed under the action of the driver. During operation, when the rear ends of the two clamp rods 140 of the same positioning device move between the two blocks 241, the clamp 240 descends so that the two blocks 241 respectively conflict with the outer sides of the rear ends of the two clamp rods 140, and then the driver drives the two blocks 241 to close horizontally, and the rear ends of the clamp rods 140 are closed accordingly, and the front ends of the clamp rods 140 are separated due to the lever action, and the wine jar 9 can be taken out and replaced. After adopting this structure, the clamp 240 can automatically control the front ends of the clamp rods 140 to separate or close, thereby realizing the automatic loading and unloading of the wine jar 9. The entry and exit station 2 also includes a lifting manipulator 230, which is located above the positioning ring 130 and is driven to rise and fall by a vertical cylinder arranged on the mounting plate 160. The manipulator 230 is arranged opposite to the positioning ring 130, so that the positioning ring 130 can automatically move up and down when clamped by the manipulator 230.

[0057] In order to further improve the replacement efficiency of the wine jars 9, the entry and exit station 2 includes an entry station 210 and an exit station 220 with the same structure. Since the entry station 210 and the exit station 220 are independent of each other, the entry and exit efficiency of the wine jars 9 is further improved. Figure 1 As shown, a temporary storage station can be reserved between the entry station 210 and the loading station 3, so that the production line has a certain degree of redundancy. A roller 132 is provided on the side of the positioning ring 130 close to the column 110. A horizontally rotatable transfer bar 150 is provided on the side wall of the column 110 between the entry station 210 and the exit station 220, and the transfer bar 150 is located above the wine jar 9. During operation, the manipulator 230 located at the exit station 220 first descends and clamps the positioning ring 130, and then drives the positioning ring 130 to rise. At this time, the wine jar 9 is taken out, and the transfer bar 150 rotates to the bottom of the roller 132 of the positioning ring 130 of the exit station 220 to achieve support, and the manipulator 230 of the exit station 220 is released. When the flat plate of the transfer table 1 rotates to move the positioning device from the exit station 220 to the entry station 210, the transfer bar 150 is simultaneously rotated to the position of the entry station 210 under the drive of the cylinder. After the new wine jar 9 is placed in the entry station 210, the transfer bar 150 rotates toward the exit station 220, and the positioning ring 130 loses the support of the transfer bar 150 and automatically descends to the middle of the new wine jar 9 to be fixed.

[0058] In addition, a cleaning nozzle may be provided on the column 11 so as to clean all workstations.

[0059] The present invention is described in detail above. Specific examples are used herein to illustrate the principles and implementation methods of the present invention. The description of the above embodiments is only used to help understand the method of the present invention and its core idea. It should be pointed out that for ordinary technicians in this technical field, without departing from the principle of the present invention, several improvements and modifications can be made to the present invention, and these improvements and modifications also fall within the scope of protection of the claims of the present invention.

Claims

1. A fully automatic mud sealing production line for jars, characterized in that: include: A transfer platform (1), wherein a plurality of positioning devices for fixing the wine jars (9) are provided on the transfer platform (1), and the transfer platform (1) is used to transfer the wine jars (9) to different workstations; An entry and exit station (2), wherein the entry and exit station (2) is used for allowing the wine jar (9) to enter and exit; A loading station (3), the loading station (3) comprising a spinning device and a feeder (350), the spinning device comprising a material pipe (310) located above the transfer platform (1), a lifting guide cylinder (320) sleeved on the lower part of the material pipe (310), and a first spinning rod (330) arranged in the material pipe (310) and capable of rotating downward, the feeder (350) being used to transport mud material to the material pipe (310), and an opening being provided at the bottom of the material pipe (310); A secondary extrusion and shaping station (4), wherein the secondary extrusion and shaping station (4) comprises a lifting shaper, wherein the shaper is located above the transfer platform (1) and is used to contact the mud head (910) to achieve compression shaping; A drying station (5) is further provided between the secondary extrusion shaping station (4) and the entry and exit station (2), and the drying station (5) comprises a lifting drying hood (510) located above the transfer platform (1), the drying hood (510) is cylindrical, the lower end surface of the drying hood (510) is provided with a groove matching the mud head (910), and a guide channel is provided inside the drying hood (510) to achieve drying of the mud head (910); A height setting station (6) is also provided between the secondary extrusion shaping station (4) and the drying station (5), and the height setting station (6) comprises a lifting connection frame (610) located above the transfer platform (1), and a storage bin (620) that can slide laterally is provided on the connection frame (610), and an opening facing the mud head (910) is provided at the bottom of the storage bin (620), and a cutting plate (630) that can slide laterally for cutting the mud head (910) is provided at the opening of the storage bin (620).

2. The fully automatic mud sealing production line for altars according to claim 1 is characterized in that: A second transverse power source and two semi-annular laterally slidable shaping covers (640) are also provided on both sides of the lower part of the connecting frame (610), and the two shaping covers (640) are driven by the second transverse power source to close together to form a ring.

3. The fully automatic mud sealing production line for altars according to claim 1 is characterized in that: A shaping and scraping station (7) is also provided between the height setting station (6) and the drying station (5), and the shaping and scraping station (7) comprises a lifting type rotating scraper (710) located above the transfer platform (1), and a scraper (720) disposed downward is provided on the outer edge of the rotating scraper (710).

4. The fully automatic mud sealing production line for jars according to claim 3 is characterized in that: A marking station (8) is also provided between the shaping and scraping station (7) and the drying station (5), and the marking station (8) comprises a sliding assembly (810), an ink pad groove (820) and a lifting and lowering stamping plate (830), all of which are located above the transfer platform (1); the ink pad groove (820) is located on the side of the wine jar (9), and the sliding assembly (810) is used to drive the stamping plate (830) to slide between the ink pad groove (820) and the jar mouth.

5. The fully automatic mud sealing production line for altars according to any one of claims 1 to 4, characterized in that: The loading station (3) further comprises a baffle (340) arranged below the material pipe (310), and the baffle (340) can slide laterally to achieve blocking of the bottom opening of the material pipe (310).

6. The fully automatic mud sealing production line for jars according to any one of claims 1 to 4, characterized in that: The former comprises a lifting support frame (410), on which a first transverse power source is provided, and two semi-annular pressing covers (420) are slidably connected on both sides of the support frame (410), and the two pressing covers (420) are driven by the first transverse power source to close, and a second spinning rod (430) that can rotate downward is provided between the two pressing covers (420).

7. The fully automatic mud sealing production line for jars according to any one of claims 1 to 4, characterized in that: The transfer platform (1) comprises a circular flat plate and a drive motor, wherein the drive motor is used to drive the flat plate to rotate horizontally around a center, the positioning device is distributed circumferentially on the transfer platform (1), and all workstations are distributed circumferentially around the transfer platform (1).

8. The fully automatic mud sealing production line for jars according to claim 7 is characterized in that: The positioning device comprises a stand (120) fixedly mounted on the transfer platform (1), a positioning ring (130) slidably connected to the stand (120) in the vertical direction, and a clamp-like clamp formed by two clamping rods (140) hinged at the middle part to the transfer platform (1), wherein the front ends of the two clamping rods (140) are semi-annular, and a spring (141) is connected between the rear ends of the two clamping rods (140) so that the front ends of the clamping rods (140) remain in a closed state.

9. The fully automatic mud sealing production line for jars according to claim 8 is characterized in that: The middle of the transfer platform (1) is provided with an upwardly disposed column (110), the middle of the column (110) is provided with an annular recovery groove (111), and the side of the positioning ring (130) is provided with a guide groove (131) disposed opposite to the recovery groove (111).

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