A fully automatic imitation handmade oil leather production equipment

Abstract

The present invention discloses a fully automated manual imitation oil skin production device, including a forming box body, a peeling and collecting device arranged above the forming box body, and a coating paddle system. The forming box body has an upper and a lower layer structure. The upper layer is a trough-shaped steamer for pulp forming, and the lower layer is a waste heat bin body with functions of transmission, collection, and drying and capable of releasing heat to the outside. The peeling and collecting device includes two symmetric wiring units respectively arranged at both ends of the trough-shaped steamer. The wiring unit includes a horizontal sliding bracket, a vertical sliding bracket, a first rotating wiring disc, and a second rotating wiring disc. The first rotating wiring disc is slidably connected to the horizontal sliding bracket through a sliding connecting disc, and the second rotating wiring disc is slidably connected to the vertical sliding bracket through a sliding connecting disc. The coating paddle system is installed on one side of the trough-shaped steamer. The coating paddle system includes a main pulp conveying pipe, and a number of pulp conveying branch pipes are evenly arranged along the main pulp conveying pipe. A metering pulp distributor is installed at the output end of each pulp conveying branch pipe.

Description

Technical Field

[0001] The invention belongs to the technical field of bean product equipment, and in particular relates to a fully automatic hand-made imitation oil-skin production device. Background Art

[0002] Youpi (yupian) is also known as fuyi (flakes of soybeans), tofu skin (fuyi), and fried tofu skin. Tofu skin is a soy product made by grinding soybeans, boiling them, and then solidifying and drying them. Tofu skin is made by picking the skins from the pot, straightening them, gluing them together from the middle, forming a double-layer semicircular shape, and then drying them. The skins are thin, transparent, semicircular or rectangular, and glossy yellow. They are soft and non-sticky, with a smooth surface and a milky-yellowish luster. They have a unique flavor and are a nutritious food that is high in protein, low in fat, and cholesterol-free. With the development and advancement of technology, the production of youpi has shifted from pure manual labor to automated machinery. Currently, most of the oilpi production equipment on the market is semi-automated, unable to achieve continuous production and still requiring a lot of manpower to complete the work. Furthermore, the soy milk utilization rate is low, and during the skin-making process, high-quality soy milk splashes and adheres to the side of the pot, resulting in a large amount of soy milk waste. Summary of the Invention

[0003] The purpose of the present invention is to provide a fully automatic imitation handmade oil skin production equipment, which solves the shortcomings of the above-mentioned existing technology, realizes automated continuous production, saves a lot of manpower labor costs, improves work efficiency, and the shape and taste of each bean skin are basically the same as those of handmade ones, with unified standards and guaranteed quality.

[0004] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: a fully automated imitation hand-made oil leather production equipment, comprising a forming box, a peeling and collecting device arranged above the forming box, and a coating paddle system, wherein the forming box is a two-layer structure of upper and lower layers, wherein the upper layer is a trough-type steamer for pulp forming, and the lower layer is a waste heat bin with transmission, collection, and drying functions and can release heat to the outside; the peeling and collecting device comprises two symmetrical wiring units and is respectively arranged at both ends of the trough-type steamer, the wiring unit comprises a horizontal sliding bracket, a vertical sliding bracket, a first rotating wiring disk, and a second rotating wiring disk, the first rotating wiring disk is slidably connected to the horizontal sliding bracket through a sliding joint, and the second rotating wiring disk is slidably connected to the vertical sliding bracket through a sliding joint; the coating paddle system is installed on one side of the trough-type steamer, the coating paddle system comprises a slurry main pipe, and a number of slurry branch pipes are evenly arranged along the slurry main pipe, and a quantitative slurry distributor is installed at the output end of each slurry branch pipe.

[0005] Preferably, the trough-shaped steamer is a flat-bottomed rectangular groove structure with a silicon-boron-based glass bottom and a frame made of a material with a relatively low thermal conductivity. The silicon-boron-based glass and the material with a relatively low thermal conductivity are connected by an inlay method, having high sealing performance to prevent slurry leakage. The material with a relatively low thermal conductivity is wood or foam silicone material, or a hollow metal material injected with cooling water can also be used.

[0006] Preferably, several paddle distribution grids extending inward are respectively arranged on the inner sides of the longitudinal frames of the trough-shaped steamer. The several paddle distribution grids are arranged in two rows in the trough-shaped steamer and are evenly spaced along the two longitudinal frames respectively. A neat parallel notch is longitudinally left in the middle of the trough-shaped steamer between the two rows of paddle distribution grids, which is convenient for wiring and peeling.

[0007] Preferably, a hot gas retention cavity is arranged at the bottom of the trough-shaped steamer. A hot gas hole and a cold gas hole are arranged on the right side of the hot gas retention cavity. The hot gas hole is connected to a heat supply source to supply heat to the hot gas retention cavity, and the cold gas hole is connected to a blower to supply air to the hot gas retention cavity for cooling when necessary. A pair of air outlets are arranged on the left side of the hot gas retention cavity, and the air outlets are used to output the waste heat air flow.

[0008] Preferably, a waste heat return cavity is arranged at the bottom of the waste heat storage body. The waste heat return cavity is a rectangular cavity or a finned heat dissipation tube structure to facilitate heat release to the outside. A pair of air inlets are arranged on the left side of the waste heat return cavity, and the air inlets are connected to the air outlets on the left side of the hot gas retention cavity through pipelines to facilitate collection of the waste heat released by the hot gas retention cavity. A drying transmission mechanism is arranged above the waste heat return cavity.

[0009] Preferably, the sliding tray is provided with a connecting bolt interface and a moving motor. The connecting bolt interface is used to connect the first rotating wiring disc or the second rotating wiring disc. The power output end of the moving motor is matched with the rack on the horizontal sliding bracket or the vertical sliding bracket through a gear to drive the sliding tray to move on the horizontal sliding bracket or the vertical sliding bracket.

[0010] Preferably, both the first rotating wiring disc and the second rotating wiring disc include a rotating tray, a connecting bolt shaft, a rotating sleeve, a rotating gear, and a rotating motor. The rotating tray is rotatably connected to one end of the connecting bolt shaft. The rotating sleeve is sleeved outside the connecting bolt shaft, and the end with a flange is fixed to the rotating tray. A rotating gear is arranged on the outer wall of the rotating sleeve, and the rotating gear meshes with the worm at the output end of the rotating motor to drive the rotating gear to rotate, thereby driving the rotating tray to rotate.

[0011] Preferably, the rotary joint is evenly provided with multiple wiring mechanisms, and the wiring mechanisms include a wiring wheel, a cylinder, a wire transmission motor, a pulley, and a peeling line. The wiring wheel is installed at the end of the telescopic rod of the cylinder, and the wire transmission motor and the pulley are installed at intervals on one side of the rotary joint. The peeling line is wound around the wiring wheel, the wire transmission motor, and the pulley in a ring shape in sequence, and the peeling line can rotate cyclically under the drive of the wire transmission motor.

[0012] Preferably, an air-electric wire slide is provided in the hollow cavity of the connecting bolt shaft, and a main air pipe is provided through the center of the air-electric wire slide, one end of the main air pipe is connected to the air source, and the other end of the main air pipe is connected to the cylinder through a universal joint; a number of wires are respectively provided at both ends of the air-electric wire slide and around the main air pipe, wherein the wire at one end is connected to the power supply, and the wire at the other end is respectively connected to the wire transmission motor and the solenoid valve on the cylinder.

[0013] Preferably, the quantitative slurry distributor is composed of a container, a pneumatic reversing valve and a signal feedback device, which can set the slurry distribution amount and control the closing and opening of the valve under control instructions.

[0014] Compared with the prior art, the present invention has the following beneficial effects:

[0015] The present invention adopts the above-mentioned technical solution and cooperates with the intelligent control system. All operations are carried out under the instruction of the intelligent control system, thereby achieving the goal of fully automatic continuous production of oil skin, improving work efficiency, and saving a lot of production costs. In the present invention, the trough-shaped steamer adopts a borosilicate glass bottom and a frame made of a material with a low thermal conductivity coefficient, which solves the problem that the bottom of the steamer is easily deformed by heat, the area is large, and the edge of the oil skin adheres to the frame, and prevents the production of defective products caused by the Maillard reaction of soy milk retained for a long time due to the deformation of the steamer bottom; the quantitative pulping device is adopted in the coating paddle system to solve the problem of uneven manual pulping and soy milk splashing, thereby reducing soy milk waste and improving the yield rate of oil skin; the wiring mechanism adopts the telescopic principle of the cylinder to make a mechanical arm, which solves the heavy physical labor of manually peeling the skins one by one, tying the skins with bamboo poles, and picking up the skins, and solves the problem of easy bending during drying.

[0016] The invention can effectively solve the technical problems of soybean milk splashing, uneven soybean milk distribution and soybean milk residue at the bottom of the pot during the production of oil dough, and has good practical value. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a structural schematic diagram of the present invention.

[0018] Figure 2 It is a schematic diagram of the wiring unit structure of the present invention.

[0019] Figure 3Schematic structural diagram of the first rotating wiring disc and the second rotating wiring disc of the present invention.

[0020] Figure 4 Schematic distribution structure diagram of the wiring mechanism of the present invention on the rotating adapter plate.

[0021] Figure 5 Schematic installation structure diagram of the pneumatic and electric sliding wire device of the present invention.

[0022] In the figure: 1 - trough-shaped steamer, 11 - pulp distributing grid, 12 - hot gas retention cavity, 121 - hot gas holes, 122 - cold gas holes, 123 - air outlet holes

[0023] 2 - waste heat storage body, 21 - waste heat return cavity, 211 - air inlet, 22 - drying and conveying mechanism

[0024] 3 - horizontal sliding bracket, 4 - vertical sliding bracket, X - rack

[0025] 5 - first rotating wiring disc, 6 - second rotating wiring disc, A - rotating adapter plate, B - connecting bolt shaft, C - rotating sleeve, D - rotating gear, E - rotating motor, A1 - wiring mechanism, A11 - wiring wheel, A12 - cylinder, A13 - wire transmission motor, A14 - sliding wire wheel, A15 - peeling wire, B1 - pneumatic and electric sliding wire device.

[0026] 7 - sliding adapter plate, 71 - connecting bolt interface, 72 - moving motor

[0027] 8 - main pulp conveying pipe, 9 - pulp conveying branch pipe, 10 - quantitative pulp distributor. Specific embodiments

[0028] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0029] Refer to Figures 1-5The present invention provides a fully automated imitation handmade oil leather production equipment, including a forming box, a peeling and collecting device arranged above the forming box, and a coating paddle system. The forming box is a two-layer structure, wherein the upper layer is a trough-shaped steamer 1 for pulp forming, and the lower layer is a waste heat bin 2 with transmission, collection, and drying functions and can release heat to the outside. The trough-shaped steamer 1 is a flat-bottomed rectangular groove structure with a borosilicate glass bottom and a material with a low thermal conductivity coefficient as a frame. The borosilicate glass and the material with a low thermal conductivity coefficient are connected by an inlay method, which has a high sealing performance, thereby preventing slurry leakage; the material with a low thermal conductivity coefficient is wood or foam silicone material, and a hollow metal material can also be used and injected with cooling water. The inner side of the longitudinal frame of the trough-type steamer 1 is provided with a plurality of paddle grilles 11 extending inward. The paddle grilles 11 are arranged in two rows in the trough-type steamer 1 and are evenly spaced along the two longitudinal frames. A neat parallel gap is left in the middle of the trough-type steamer 1 between the two rows of paddle grilles 11. The parallel gap is convenient for wiring and peeling. A hot air retention chamber 12 is provided at the bottom of the trough-type steamer 1. A hot air hole 121 and a cold air hole 122 are provided on the right side of the hot air retention chamber 12. The hot air hole 121 is connected to a heat source to supply heat to the hot air retention chamber, and the cold air hole 122 is connected to a fan to supply air to the hot air retention chamber 12 when necessary to cool it down. A pair of air outlets 123 are provided on the left side of the hot air retention chamber 12. The air outlets 123 are used to output the waste heat air flow. A waste heat reflow chamber 21 is provided at the bottom of the waste heat bin body 2. The waste heat reflow chamber 21 is a rectangular cavity or a finned heat dissipation pipe structure to release heat to the outside. A pair of air inlets 211 are provided on the left side of the waste heat reflow chamber 21. The air inlets 211 are connected to the air outlets 123 on the left side of the hot gas retention chamber 12 through pipelines, so as to collect the waste heat released by the hot gas retention chamber 12. A drying and transmission mechanism 22 is provided above the waste heat reflow chamber 21. The peeling and collecting device includes two wiring units and is respectively arranged at the two ends of the trough-type steamer 1. The wiring unit includes a horizontal sliding bracket 3, a vertical sliding bracket 4, a first rotating wiring disk 5, and a second rotating wiring disk 6. The first rotating wiring disk 5 is slidingly connected to the horizontal sliding bracket 3 through a sliding connecting plate 7, and the second rotating wiring disk 6 is slidingly connected to the vertical sliding bracket 4 through a sliding connecting plate 7; the coating paddle system is installed on one side of the trough-type steamer 1, and the coating paddle system includes a slurry main pipe 8, and a number of slurry branch pipes 9 are evenly distributed along the slurry main pipe 8. A quantitative slurry distributor 10 is installed at the output end of each slurry branch pipe 9. The quantitative slurry distributor 10 is composed of a container, a pneumatic reversing valve and a signal feedback device, which can set the slurry distribution amount and control the closing and opening of the valve under control instructions.The sliding connection plate 7 is provided with a connecting bolt interface 71 and a moving motor 72. The connecting bolt interface 71 is used to connect to the first rotating wiring disk 5 or the second rotating wiring disk 6. The power output end of the moving motor 72 cooperates with the rack X on the horizontal sliding bracket 3 or the vertical sliding bracket 4 through a gear to drive the sliding connection plate 7 to move on the horizontal sliding bracket 3 or the vertical sliding bracket 7. The first rotating wiring disk 5 and the second rotating wiring disk 6 each include a rotating connection plate A, a connecting bolt shaft B, a rotating sleeve C, a rotating gear D, and a rotating motor E. The rotating connection plate A is rotatably connected to one end of the connecting bolt shaft B. The rotating sleeve C is provided on the outside of the connecting bolt shaft B and has one end with a flange fixedly connected to the rotating connection plate A. The outer wall of the rotating sleeve C is provided with a rotating gear D. The rotating gear D engages with the worm at the output end of the rotating motor E to drive the rotating gear D to rotate, thereby driving the rotating connection plate A to rotate. The rotating connection plate A is evenly provided with multiple wiring mechanisms A1, and the wiring mechanisms include a wiring wheel A11, a cylinder A12, a wire transmission motor A13, a pulley A14, and a peeling line A15. The wiring wheel A11 is installed at the end of the telescopic rod of the cylinder A12, and the wire transmission motor A13 and the pulley A14 are installed at intervals on one side of the rotating connection plate A. The peeling line A15 is ring-shaped and wound around the wiring wheel A11, the wire transmission motor A13, and the pulley A14 in sequence, and the peeling line A15 can rotate cyclically under the drive of the wire transmission motor A13. A gas-electric wire slide B1 is provided in the hollow cavity of the connecting bolt shaft B, and a main air pipe is provided through the center of the gas-electric wire slide B1. One end of the main air pipe is connected to the air source, and the other end of the main air pipe is connected to the cylinder through a universal joint; a number of wires are respectively provided at both ends of the gas-electric wire slide B1 and around the main air pipe, one end of which is connected to the power supply, and the other end of which is respectively connected to the line transmission motor and the solenoid valve on the cylinder.

[0030] How it works

[0031] The present invention completes the oil-skin production process under the command of an intelligent control system. Two wiring units are arranged at both ends of a trough-shaped steamer, connected by multiple circular peeling lines A15. The peeling lines A15 can rotate cyclically under control commands. Each wiring unit includes a horizontal sliding bracket and a vertical sliding bracket. The first rotating wiring disc 5 can move horizontally along the horizontal sliding bracket 3 under control commands, and the second rotating wiring disc 6 can move vertically along the vertical sliding bracket 4 under control commands. The rotating connecting discs A in the first and second rotating wiring discs 5 and 6 can rotate under control commands. The combination of the cylinder A12 and the wiring wheel A11 in the wiring mechanism, which can telescope under control commands, constitutes a robotic arm for peeling.

[0032] During operation, the solenoid valve of the heat supply source is opened to supply heat to the hot air retention chamber 12 at the bottom of the trough-shaped steamer 1 through the hot air holes. When the first rotating wiring disc 5 moves to a position above the parallel notch (i.e., the wiring position) in the middle of the trough-shaped steamer 1, the cylinder A12 receives a control command to extend and place one of the skin peeling wires A15 into the trough-shaped steamer 1. The coating paddle system receives a control command to inject slurry into the metering slurry distributor 10. When the soy milk reaches the metering requirement command of the metering slurry distributor 10, the injection valve is closed, the slurry distribution valve is opened, and the slurry distribution completion command closes the slurry distribution valve. After several minutes, when the skin of the bean curd sheet is formed, the solenoid valve of the heat supply source receives a command to close. If the temperature of the trough-shaped steamer 1 is too high, the fan will receive a command to operate and the cold air valve will be opened simultaneously. The operation time of the fan is commanded, and then the fan stops and the cold air valve is closed. Then, the cylinder A12 receives a command to contract, and the skin of the bean curd sheet is slowly lifted by the skin peeling wire A15. The rotating tray A receives a command to rotate by an angle so that the next skin peeling wire A15 is placed into the trough-shaped steamer. The solenoid valve of the heat supply source receives a command to open and supply hot air to the hot air retention chamber 12. By repeating the above steps, all the skin peeling wires A15 on the first rotating wiring disc 5 are covered with the skin of the bean curd sheet. When the last skin peeling wire A15 on the rotating tray in the first rotating wiring disc 5 receives a command to lift the skin of the bean curd sheet in the steamer, the sliding tray 7 connected to the first rotating wiring disc 5 receives a command to slowly move out of the working position along the horizontal sliding bracket 3. At the same time, the second rotating wiring disc 6 receives a command and enters the working position at the same speed as the first rotating wiring disc 5. When all the skin peeling wires on the second rotating wiring disc 6 are covered with the skin of the bean curd sheet, the action of moving out of the working position is repeated. When the second rotating wiring disc 6 is performing the skin peeling work, after the skin of the bean curd sheet on the first rotating wiring disc 5 is naturally air-dried, the wire feeding motor A13 operates under the control command to output the skin of the bean curd sheet to one end. The skin of the bean curd sheet on the skin peeling wire is simultaneously cut in the middle by the blade on the wiring mechanism, so that the skin of the bean curd sheet falls onto the drying transmission mechanism 22 and is conveyed through the waste heat chamber 2. Since the waste heat chamber 2 is provided with a waste heat return chamber 21, the waste heat in the hot air retention chamber 12 is recovered and dissipated, so that a relatively high temperature is always maintained in the waste heat chamber 2. When the skin of the bean curd sheet passes through the waste heat chamber 2, the skin of the bean curd sheet can be dried for the second time. After natural air-drying and secondary drying, the skin of the bean curd sheet can be sorted and packaged for sale.

[0033] The core of the present invention is to solve the problem of soy milk waste and improve the utilization rate of soybeans. Under the premise of making full use of soy milk, it realizes fully automated peeling. Although some automated equipment has realized mechanized production activities, the utilization rate of soy milk is only 60 to 70 percent. Some machines have also achieved full utilization of soy milk, but the oil skin produced is not the traditional gelled soy skin. It adopts the principle of spraying dehydration and solidification, and the taste and shape are completely different from traditional soybean oil skin. In production, the nozzle is often blocked by solidified soy milk and needs manual care, resulting in the inability to reduce labor. The present invention is the most automated equipment that is currently closest to traditional process practices, and solves the adverse consequences caused by manual operation. It ensures a clean and hygienic production environment, solves the problem that workers cannot wear work clothes to produce in a high temperature environment, completely solves the pollution caused by splashing and dripping, and completely solves the size, thickness, weight, and tenderness of each skin to be at the same level, laying the foundation for unified standards for quantitative packaging.

[0034] While embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions, and variations may be made to these embodiments without departing from the principles and spirit of the invention, and that the scope of the invention is defined by the appended claims and their equivalents.

Claims

1. A fully automated manual-simulating oil skin production device, comprising a forming box body, a peeling and collecting device arranged above the forming box body, and a coating paddle system, characterized in that: The forming box body has an upper and a lower two-layer structure. The upper layer is a trough-shaped steamer for pulp distribution and forming, and the lower layer is a waste heat chamber body with functions of transmission, collection, drying, and heat release to the outside. A hot gas retention cavity is arranged at the bottom of the trough-shaped steamer. A hot gas hole and a cold gas hole are arranged on the right side of the hot gas retention cavity. The hot gas hole is connected to a heat supply source to supply heat to the hot gas retention cavity, and the cold gas hole is connected to a blower to send air to the hot gas retention cavity to play a role in cooling. A pair of air outlets is arranged on the left side of the hot gas retention cavity, and the air outlets are used to output waste heat air flow. A waste heat return cavity is arranged at the bottom of the waste heat chamber body. The waste heat return cavity is a rectangular cavity or a finned heat dissipation tube structure to facilitate heat release to the outside. A pair of air inlets is arranged on the left side of the waste heat return cavity, and the air inlets are connected to the air outlets on the left side of the hot gas retention cavity through pipelines to facilitate the collection of the waste heat released by the hot gas retention cavity. A drying transmission mechanism is arranged above the waste heat return cavity. The peeling and collecting device includes two symmetrical wiring units respectively arranged at both ends of the trough-shaped steamer. The wiring unit includes a horizontal sliding bracket, a vertical sliding bracket, a first rotating wiring disc, and a second rotating wiring disc. The first rotating wiring disc is slidably connected to the horizontal sliding bracket through a sliding connection disc, and the second rotating wiring disc is slidably connected to the vertical sliding bracket through a sliding connection disc. The coating paddle system is installed on one side of the trough-shaped steamer. The coating paddle system includes a main pulp conveying pipe, and a number of pulp conveying branch pipes are evenly arranged along the main pulp conveying pipe. A metering pulp distributor is installed at the output end of each pulp conveying branch pipe. Both the first rotating wiring disc and the second rotating wiring disc include a rotating connection disc, a connecting bolt shaft, a rotating sleeve, a rotating gear, and a rotating motor. The rotating connection disc is rotatably connected to one end of the connecting bolt shaft. The rotating sleeve is sleeved outside the connecting bolt shaft, and the end with a flange is fixed to the rotating connection disc. A rotating gear is arranged on the outer wall of the rotating sleeve, and the rotating gear meshes with the worm at the output end of the rotating motor to drive the rotating gear to rotate, thereby driving the rotating connection disc to rotate. A plurality of wiring mechanisms are evenly arranged on the rotating connection disc. The wiring mechanism includes a wiring wheel, a cylinder, a wire conveying motor, a wire sliding wheel, and a peeling wire. The wiring wheel is installed at the end of the telescopic rod of the cylinder. The wire conveying motor and the wire sliding wheel are installed at intervals on one side of the rotating connection disc. The peeling wire is wound around the wiring wheel, the wire conveying motor, and the wire sliding wheel in a loop, and the peeling wire rotates in a cycle under the drive of the wire conveying motor.

2. The fully automated handmade imitation oil leather production equipment according to claim 1 is characterized by: The trough-shaped steamer is a flat-bottom rectangular groove structure with a silicon boron-based glass bottom and a frame made of a material with a lower thermal conductivity. The silicon boron-based glass and the material with a lower thermal conductivity are connected by an inlay method, having a high sealing performance to prevent slurry leakage. The material with a lower thermal conductivity is wood or foam silicone material, or a hollow metal material injected with cooling water.

3. The fully automated handmade imitation oil leather production equipment according to claim 1 is characterized by: The inner sides of the longitudinal frames of the trough-type steamer are respectively provided with a plurality of paddle grilles extending inward. The plurality of paddle grilles are arranged in two rows in the trough-type steamer and are evenly spaced along the two longitudinal frames. A neat parallel gap is left in the middle of the trough-type steamer between the two rows of paddle grilles, which is convenient for wiring and peeling.

4. The fully automated manual-simulation oil skin production equipment according to claim 1, characterized in that: The sliding connection plate is provided with a connecting bolt interface and a moving motor. The connecting bolt interface is used to connect the first rotating wiring disk or the second rotating wiring disk. The power output end of the moving motor cooperates with the rack on the horizontal sliding bracket or the vertical sliding bracket through a gear to drive the sliding connection plate to move on the horizontal sliding bracket or the vertical sliding bracket.

5. The fully automated handmade imitation oil leather production equipment according to claim 1 is characterized by: An air-electric wire slide is provided in the hollow cavity of the connecting bolt shaft, and a main air pipe is provided through the center of the air-electric wire slide, one end of the main air pipe is connected to the air source, and the other end of the main air pipe is connected to the cylinder through a universal joint; a number of wires are provided at both ends of the air-electric wire slide and around the main air pipe, one end of the wire is connected to the power supply, and the other end of the wire is respectively connected to the wire transmission motor and the solenoid valve on the cylinder.

6. The fully automated handmade imitation oil leather production equipment according to claim 1 is characterized by: The quantitative pulp distributor is composed of a container, a pneumatic reversing valve and a signal feedback device, which sets the pulp distribution amount and controls the closing and opening of the valve under control instructions.

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