Cold curing plywood resin as well as production and processing method and application thereof

Abstract

The invention provides cold-cured plywood resin and a production and processing method and application thereof, and relates to the technical field of cured resines.The production and processing method of the cold-cured plywood resin mainly comprises the following steps that S1, functional filler drying is conducted, specifically, the functional filler is dried till the moisture content is smaller than 1000 PPM; s2, preparing a first mixture: uniformly mixing a nano wave-absorbing particle modified polymer, a plasticizer, the dried functional filler and the modified phenolic resin to obtain the first mixture; the packaging efficiency is effectively improved, the packaging speed is high, the production and processing cost of an enterprise can be remarkably reduced, a prefabricated packaging bag does not need to be purchased, a mechanical device for bagging and bag opening does not need to be arranged, a machine is adopted to automatically fold and roll a plastic packaging film into a tubular shape, a middle line is subjected to plastic packaging to form a tubular plastic packaging film, a glue injection pipe extends into the tubular plastic packaging film, and the packaging efficiency is greatly improved. Extrusion and bag making are carried out at the same time, bag making and filling are carried out at the same time, the production efficiency is high, the production speed is high, and the enterprise production cost is low.

Description

Technical Field

[0001] The present invention relates to the technical field of cured resins, and particularly to a cold-curing plywood resin, its production and processing method, and application. Background Art

[0002] Cold-curing plywood resin is an adhesive that can cure under low-temperature conditions and is mainly used in the manufacture of plywood. This resin can cure quickly at room temperature and has the advantages of low curing exotherm, small thermal shrinkage, and good weather resistance.

[0003] Common types of cold-curing plywood resins: epoxy resin, phenolic resin, polyisocyanate, acrylic resin, UV resin, UV resin, acrylic acid resin, polyurethane resin, etc. Phenolic resin is also a common cold-curing adhesive and has good heat resistance and chemical corrosion resistance. It is usually used in the manufacture of high-temperature-resistant plywood, laminates, and friction materials, etc.

[0004] Currently, the existing one, such as the patent application number CN202111626577.X, discloses a nano-wave-absorbing particle-modified phenolic resin adhesive and its preparation method, and discloses that it is made of the following components by weight: 100-120 parts of modified phenolic resin, 20-30 parts of nano-wave-absorbing particle-modified polymer, 0.5-100 parts of plasticizer, 100-300 parts of functional filler, 2-5 parts of β-(3,4-epoxycyclohexyl)ethyltriethoxysilane, 1-3 parts of cashew phenol, 18-25 parts of ethylene glycol, 0.5-10 parts of functional catalyst, etc. The nano-wave-absorbing particle-modified phenolic resin adhesive produced by the present invention significantly shortens the curing time of plywood while greatly improving the strength of plywood, and at the same time significantly reduces the release amount of free formaldehyde and free phenol in plywood, making it more environmentally friendly.

[0005] Although the above patent discloses the preparation method of cold-curing plywood resin, the preparation method of cold-curing plywood resin still requires the relevant specific production and processing process, and there are still some deficiencies in the existing cold-curing plywood resin during the production and processing process. The specific deficiencies are as follows:

[0006] First, in the existing production and processing process of cold-curing plywood resin, during the process of bagging the prepared cold-curing plywood resin, for the preparation of the packaging bag before filling, it is often necessary to purchase prefabricated packaging bags from a third-party packaging. The price of purchasing prefabricated packaging bags is high, and during the process of filling cold-curing plywood resin into the packaging bag, the packaging bag is mechanically installed under the filling gun, and after filling, the packaging bag is mechanically removed from under the filling gun and transferred to the sealing station for sealing. These many steps result in low filling efficiency of cold-curing plywood resin, slow filling speed, and complex filling structure, increasing the production cost of the enterprise. Summary of the Invention

[0007] In view of the problems in the prior art, the purpose of the present invention is to provide a cold-curing plywood resin, its production and processing method, and its application, so as to solve the problems described in the above background art: In the existing cold-curing plywood resin production and processing process, during the process of bagging the prepared cold-curing plywood resin, for the preparation of the packaging bags before filling, it is often necessary to purchase prefabricated packaging bags from a third-party packaging. The price of purchasing prefabricated packaging bags is high, and during the process of filling the cold-curing plywood resin into the packaging bags, the packaging bags are mechanically installed under the filling gun, and after filling, the packaging bags are mechanically removed from under the filling gun and transferred to the sealing station for sealing. Such a large number of steps result in low filling efficiency, slow filling speed, complex filling structure, and high production costs for enterprises.

[0008] The technical problems to be solved by the present invention are achieved by the following technical solutions: A production and processing method of cold-curing plywood resin, which mainly includes the following steps:

[0009] S1. Drying of functional fillers: Dry the functional fillers until the moisture content is less than 1000 PPM;

[0010] S2. Preparation of the first mixture: Mix the nano-wave-absorbing particle-modified polymer, plasticizer, the dried functional fillers, and modified phenolic resin evenly to obtain the first mixture;

[0011] S3. Preparation of cold-curing plywood resin: Mix the functional catalyst, β-ethyltriethoxysilane, cashew phenol, ethylene glycol, and the first mixture obtained in step S2 evenly to obtain the cold-curing plywood resin;

[0012] S4. Preparation of packaging bags: The packaging bags required for filling the cold-curing plywood resin obtained in step S3 are pre-treated before filling the cold-curing plywood resin. Fold and wrap the plastic sealing film used to prepare the packaging bags into a tube shape and seal the middle line to form a tubular plastic sealing film;

[0013] S5. Resin filling: Transfer the cold-curing plywood resin obtained in step S3 to a mixing and stirring cylinder for storage, and extrude the cold-curing plywood resin downward from the mixing and stirring cylinder through a glue injection pipe. The extruded cold-curing plywood resin enters the tubular plastic sealing film;

[0014] S6. Sealing of packaging bags: Seal the upper and lower ends of the cold-curing plywood resin that has entered the tubular plastic sealing film. Press and clamp from above and below the cold-curing plywood resin that has entered the tubular plastic sealing film to form a packaging bag, and seal the cold-curing plywood resin in the packaging bag.

[0015] As a preferred technical solution of the present invention, the above-described steps S4-S6 are mainly completed in cooperation with a cold-curing plywood resin production and processing device. The cold-curing plywood resin production and processing device includes support legs fixed on the ground. The top of the support legs is fixedly installed with a vertical chassis. The top of the vertical chassis is fixedly installed with a mixing and stirring cylinder. A screw conveyor is arranged at the bottom of the mixing and stirring cylinder. The front end of the screw conveyor is connected with a glue injection pipe. The glue injection pipe is perpendicular to the ground of the vertical chassis. The glue injection pipe is fixed on the front end face of the vertical chassis. A vibration motor is arranged on the surface of the glue injection pipe. A film protection pipe is fixed on the outer wall of the glue injection pipe. The film protection pipe wraps the glue injection pipe. A film guiding flow plate is arranged at the top of the film protection pipe. The film guiding flow plate is of a semi-conical structure. The outer wall of the glue injection pipe is a smooth arc surface. Film guiding pressing strips are symmetrically arranged on both sides of the film guiding flow plate. A support arm is arranged at the top of the vertical chassis. The top of the support arm is rotatably connected with a film winding cylinder. A plastic sealing film is wound on the surface of the film winding cylinder. A film feeding roller is arranged at the bottom of the film winding cylinder. The bottom end of the plastic sealing film passes through the film feeding roller and wraps around the outer wall of the film guiding flow plate. The edges of the plastic sealing film wrapped around the outer wall of the film guiding flow plate are pressed and guided by film guiding pressing strips; A middle sealing mechanism and a heat sealing and cutting mechanism are arranged on the front end face of the vertical chassis. The middle sealing mechanism is located above the bottom end of the glue injection pipe on the front end face of the vertical chassis. A pressing wheel is arranged below the middle sealing mechanism. The heat sealing and cutting mechanism is arranged below the glue injection pipe. A storage box is placed at the bottom of the vertical chassis.

[0016] As a preferred technical solution of the present invention, the middle sealing mechanism includes fixed frames symmetrically arranged on the left and right sides of the glue injection pipe. Each side of the fixed frame is fixedly installed on the front end face of the vertical chassis. Guide rod sleeves are symmetrically arranged at the upper and lower ends of each side of the fixed frame. The piston rods of the pneumatic cylinders on both sides extend towards the glue injection pipe. The top end of the piston rod of each side of the pneumatic cylinder is provided with a middle sealing clamping plate assembly. Each of the upper and lower ends of the middle sealing clamping plate assembly is provided with a guide rod. The guide rod is slidably connected in the guide rod sleeves at the upper and lower ends of the fixed frame.

[0017] As a preferred technical solution of the present invention, the middle sealing clamping plate assembly includes L-shaped support plates arranged on the left and right sides of the glue injection pipe. An edge film pushing block is arranged on the surface of one side of the L-shaped support plate. The edge film pushing block stands upright on the ground at the bottom of the vertical chassis. The edge film pushing block is of a straight bar structure. An arc transition circle 1 is arranged at the topmost position of the surface protrusion of the edge film pushing block. A constant temperature hot melt sheet 1 is arranged on the surface of the other side of the L-shaped support plate. An arc-shaped curved surface that fits the edge film pushing block is arranged on the surface of the constant temperature hot melt sheet.

[0018] As a preferred technical solution of the present invention, a hinge support I is fixed at the top end of the L-shaped support plate on each side. A swing arm frame is rotatably connected to the surface of the hinge support I. A film pushing roller is rotatably connected to the top end of the swing arm frame. A resistance wheel is in rolling contact with the edge of the film pushing roller. A pressing spring is arranged in the middle of the swing arm frame. The other end of the pressing spring is fixed to the other side of the L-shaped support plate. The outer wall of the film pushing roller is wrapped with a foam soft package.

[0019] As a preferred technical solution of the present invention, the heat-sealing and cutting mechanism includes a fixed chassis fixed to the front end face of the vertical chassis. A heat-sealing and cutting port is opened on the top end face of the fixed chassis. Movable clamping plates for reciprocating clamping are symmetrically arranged on the left and right sides of the heat-sealing and cutting port. A relief groove is opened on the surface of one of the movable clamping plates. A cutting knife is arranged on the surface of the other movable clamping plate;

[0020] Sliding shaft rods are arranged on the backs of the movable clamping plates on both sides. The sliding shaft rods are slidably connected to the fixed chassis. Pneumatic cylinders II are symmetrically arranged on the left and right sides of the fixed chassis. A piston rod extends into the heat-sealing and cutting port from the pneumatic cylinder II. The movable clamping plate is fixed to the top end of the piston rod of the pneumatic cylinder II.

[0021] As a preferred technical solution of the present invention, two parallel plastic-sealing pushing blocks are arranged on the surface of one of the movable clamping plates. Each plastic-sealing pushing block is a straight bar structure. An arc transition circle II is arranged at the topmost position of the protrusion on the surface of each plastic-sealing pushing block. A constant-temperature hot melt sheet II corresponding to the plastic-sealing pushing block is opened on the surface of one of the movable clamping plates.

[0022] As a preferred technical solution of the present invention, a transmission cavity is opened inside the movable clamping plate on the side where the cutting knife is located. A connecting support rod extends from the top of the surface of the movable clamping plate. The connecting support rod is slidably connected to the inside of the movable clamping plate. The other end of the connecting support rod extends into the transmission cavity. A hinge support II is fixedly arranged on the inner wall of the transmission cavity. A swing rod is rotatably connected to the surface of the hinge support II. The top end of the connecting support rod extending into the transmission cavity is in contact with the swing rod;

[0023] An activity chute is opened in the middle of the movable clamping plate. A tool slide plate is slidably connected inside the activity chute. The cutting knife is arranged at the top end of the tool slide plate. A push rod is arranged at the other end of the tool slide plate. A pin rod is arranged at the top end of the push rod. A linear straight chute is opened at the bottom end of the swing rod. The pin rod at the top end of the push rod is slidably connected in the linear straight chute;

[0024] A spring pressing plate is arranged on the surface of the tool slide plate. The spring pressing plate is slidably connected in the activity chute. A knife retracting spring is arranged on the surface of the spring pressing plate slidably connected in the activity chute.

[0025] As a preferred technical solution of the present invention, a cold-curing plywood resin is also provided. The cold-curing plywood resin is made of the following components by weight: 100-120 parts of modified phenolic resin, 20-30 parts of nano-wave-absorbing particle-modified polymer, 0.5-100 parts of plasticizer, 100-300 parts of functional filler, 2-5 parts of β-(3,4-epoxycyclohexyl)ethyltriethoxysilane, 1-3 parts of cardanol, 18-25 parts of ethylene glycol, and 0.5-10 parts of functional catalyst; the functional filler is any one or more of kaolin, white carbon black, calcium carbonate, and silica powder.

[0026] As a preferred technical solution of the present invention, an application of the cold-curing plywood resin is also provided. The cold-curing plywood resin produced and processed in Claim 1 is applied to the surface of the board and left to dry for a certain time. During the curing process, pressure is applied to prevent the generation of pores and ensure the density of the adhesive layer. After the two boards are firmly bonded by the cold-curing plywood resin, it is done.

[0027] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0028] First, after the cold-curing plywood resin of the present invention is produced and prepared, the prepared cold-curing plywood resin is transferred to a mixing and stirring cylinder for storage. By setting a rotating stirring rod inside the mixing and stirring cylinder to stir the cold-curing plywood resin inside the mixing and stirring cylinder, the cold-curing plywood resin inside the mixing and stirring cylinder is kept in a flowing state. Before the cold-curing plywood resin is filled into the packaging bag, the plastic film for preparing the packaging bag is automatically folded and wrapped into a tube shape by a machine and sealed at the middle line to form a tubular plastic film. One is that it is convenient for filling, the second is that it can effectively solve the cumbersome operation of repeatedly installing and disassembling the prefabricated packaging bags used in the prior art, effectively improve the filling efficiency, and the filling speed is fast. Third, it can significantly reduce the production and processing costs of enterprises. There is no need to purchase prefabricated packaging bags, and there is no need to set up mechanical devices for bagging and unbagging. The plastic film is automatically folded and wrapped into a tube shape by a machine and sealed at the middle line to form a tubular plastic film. The injection tube extends into the tubular plastic film, and while extruding, the bag is made, realizing bag-making and filling at the same time, with high production efficiency, fast production speed, and low enterprise production costs.

[0029] Second, the cold-curing plywood resin in the mixing and stirring cylinder of the present invention enters the screw conveyor downward through the feed cavity. The extrusion amount is controlled by the conveying servo motor in the screw conveyor. The extruded cold-curing plywood resin generates high-frequency vibration through the vibration motor on the surface of the injection tube, so that the cold-curing plywood resin in the injection tube quickly drops downward and is filled into the tubular plastic film, reducing the adhesion of the resin on the inner wall of the injection tube.

[0030] III. In the present invention, a film winding cylinder is provided at the top of the vertical chassis 4. The plastic sealing film wound on the surface of the film winding cylinder is transferred downward through the reverse rotation of the film feeding roller. The plastic sealing film rewound by the film winding cylinder is guided by the film guiding flow plate. The film guiding pressure strips on both sides of the film guiding flow plate press the two side edges of the plastic sealing film. The plastic sealing film rewound by the film winding cylinder is guided along the film guiding pressure strips, so that the plastic sealing film is wrapped around the film protecting tube through the film guiding flow plate and folded along the outer wall contour of the film protecting tube to form a tubular plastic sealing film. The middle sealing clamping plate assembly that reciprocates in the middle of the middle sealing mechanism heat-seals the edge joint of the tubular plastic sealing film to form a middle sealing line. Since there is too much plastic sealing film accumulated at the folded edge of the tubular plastic sealing film on the outer wall of the film protecting tube, during the middle plastic sealing process of the middle sealing clamping plate assembly, when the edge film pushing block and the constant temperature hot melting sheet I are about to be completely close, through the design of the swing arm frame, the pressing spring, and the film pushing roller, the film pushing roller will push the plastic sealing film on the outer wall of the film protecting tube to move slightly outward to tension the heat-sealing area of the plastic sealing film, which can effectively prevent the plastic sealing film from piling up or stacking near the constant temperature hot melting sheet I during the heat-sealing process, preventing it from being melted and adhered, thereby reducing the situation of unreliable heat-sealing of the middle line of the packaging bag.

[0031] IV. Through the design of the film pushing roller and the resistance wheel in the present invention, when the initial film pushing roller initially contacts the plastic sealing film on the outer wall of the film protecting tube and continues to approach the outer wall of the film protecting tube, through the design of the hinge support I, the film pushing roller will roll outward along the outer wall of the film protecting tube during the extrusion process, and through the design of the resistance wheel, the film pushing roller will generate a rotational resistance during the rolling process, so that the film pushing roller will rotate along the outer wall of the film protecting tube during the initial pushing process and will not push the plastic sealing film, thereby enabling the film pushing roller to tension the plastic sealing film on the outer wall of the film protecting tube. And the foam soft package wrapped on the outer wall of the film pushing roller can more effectively improve the protection of the surface of the plastic sealing film. When the plastic sealing film is tensioned, if the film pushing roller still needs to continue to move at this time, since the plastic sealing film has been tensioned, at this time, the film pushing roller changes from sliding to rolling on the surface of the plastic sealing film on the outer wall of the film protecting tube, thereby driving the resistance wheel to rotate. Therefore, through the design of the film pushing roller and the resistance wheel, it can effectively protect the plastic sealing film from being damaged by the film pushing roller during the process of pushing the plastic sealing film. BRIEF DESCRIPTION OF THE DRAWINGS

[0032] The present invention will be further described below in conjunction with the drawings and embodiments.

[0033] Figure 1 It is a flowchart of the steps of the method for producing and processing cold-curing plywood resin of the present invention;

[0034] Figure 2 It is a front view structural schematic diagram of the device for producing and processing cold-curing plywood resin of the present invention;

[0035] Figure 3 It is a front view partial structural schematic diagram of the device for producing and processing cold-curing plywood resin of the present invention;

[0036] Figure 4 It is a schematic top - down partial structure diagram of the sealing mechanism in the present invention;

[0037] Figure 5 It is a schematic left - view structure diagram of the cold - curing plywood resin production and processing device of the present invention;

[0038] Figure 6 It is a schematic left - view partial sectional structure diagram of the mixing and stirring cylinder and the screw conveyor of the present invention;

[0039] Figure 7 It is a schematic front - view sectional structure diagram of the heat - sealing and cutting mechanism of the present invention;

[0040] Figure 8 It is an attachment to the specification of the present invention Figure 7 The enlarged structure diagram at position A;

[0041] Figure 9 It is an attachment to the specification of the present invention Figure 7 The enlarged structure diagram at position B;

[0042] Figure 10 It is a schematic partial connection diagram of the hinge support II, linear straight chute, and pin rod inside the transmission cavity of the present invention;

[0043] In the figure: storage box 1, support leg 2, heat - sealing and cutting mechanism 3, sliding shaft rod 301, air cylinder II 302, fixed chassis 303, movable clamping plate 304, plastic - sealing push block 305, relief groove 306, arc transition circle II 307, constant - temperature hot - melt sheet II 308, connecting support rod 309, cutting knife 310, movable chute 311, spring pressing plate 312, retracting spring 313, tool slide plate 314, push rod 315, heat - sealing and cutting port 316, swing rod 317, hinge support II 318, linear straight chute 319, pin rod 320, transmission cavity 321, vertical chassis 4, pressing wheel 5, middle - sealing mechanism 6, fixed frame 601, guide rod 602, middle - sealing clamping plate assembly 603, air cylinder I 604, resistance wheel 605, film - pushing roller 606, swing - arm frame 607, pressing spring 608, edge - film push block 609, L - shaped support plate 610, constant - temperature hot - melt sheet I 611, foam soft package 612, arc transition circle I 613, hinge support I 614, glue injection pipe 7, film - guiding flow plate 8, film - guiding roller 9, plastic - sealing film 10, film - winding cylinder 11, mixing and stirring cylinder 12, stirring rod 1201, stirring cavity 1202, stirring motor 1203, filling port 1204, tungsten - wire tube 1205, film - protecting tube 13, servo motor 14, support arm 15, film - feeding roller 16, vibration motor 18, screw conveyor 19, auger rod 1901, conveying servo motor 1902, feeding cavity 1903, film - guiding pressing strip 20. Detailed implementation manners

[0044] In order to make the technical means, creative features, achieved purposes and effects realized by the present invention easy to understand, the present invention will be further described below in conjunction with specific illustrations. It should be noted that, without conflict, the embodiments in this application and the features in the embodiments can be combined with each other.

[0045] Embodiment 1

[0046] Please refer to Figures 1 - 10 , which is a schematic diagram of the overall structure of a cold-curing plywood resin and its production, processing method and application.

[0047] A production and processing method of a cold-curing plywood resin, which mainly includes the following steps:

[0048] S1. Drying of functional filler: The functional filler is dried until the moisture content is less than 1000 PPM;

[0049] S2. Preparation of the first mixture: The nano-wave-absorbing particle-modified polymer, plasticizer, the dried functional filler, and modified phenolic resin are mixed evenly to obtain the first mixture;

[0050] S3. Preparation of cold-curing plywood resin: The functional catalyst, β-(3,4-epoxycyclohexyl)ethyltriethoxysilane, cashew phenol, ethylene glycol, and the first mixture obtained in step S2 are mixed evenly to obtain the cold-curing plywood resin; the cold-curing plywood resin is a modified phenolic resin adhesive;

[0051] S4. Preparation of packaging bags: The packaging bags required for packaging the cold-curing plywood resin obtained in step S3 are pretreated before packaging the cold-curing plywood resin. The plastic sealing film for preparing the packaging bags is folded and rolled into a tube shape and sealed at the middle line to form a tubular plastic sealing film 10;

[0052] S5. Resin packaging: The cold-curing plywood resin obtained in step S3 is transferred to a mixing and stirring cylinder for storage, and the cold-curing plywood resin in the mixing and stirring cylinder is extruded downward through a glue injection pipe. The extruded cold-curing plywood resin enters the tubular plastic sealing film 10;

[0053] S6. Sealing of packaging bags: The upper and lower ends of the cold-curing plywood resin entering the tubular plastic sealing film 10 in step S4 are sealed tightly. By pressing and clamping from above and below the cold-curing plywood resin entering the tubular plastic sealing film 10, a packaging bag is formed, and the cold-curing plywood resin is sealed in the packaging bag.

[0054] Specifically, in this embodiment, after the cold-curing plywood resin of the present invention is produced and prepared, the prepared cold-curing plywood resin is transferred to the mixing and stirring cylinder 12 for storage. By arranging a rotating stirring rod 1201 inside the mixing and stirring cylinder 12 to stir inside the mixing and stirring cylinder 12, the cold-curing plywood resin inside the mixing and stirring cylinder 12 is kept in a flowing and active state. Before the cold-curing plywood resin is filled into the packaging bags, the packaging bags to be used are pretreated. The plastic sealing film 10 for preparing the packaging bags is automatically folded and wrapped into a tube shape by a machine and the middle line is plastic-sealed to form a tubular plastic sealing film 10. Firstly, it is convenient for filling; secondly, it can effectively solve the cumbersome operation of repeatedly installing and disassembling the existing prefabricated packaging bags, effectively improving the filling efficiency and having a fast filling speed; thirdly, it can significantly reduce the production and processing costs of the enterprise. There is no need to purchase prefabricated packaging bags or set up mechanical devices for bagging and unbagging. The plastic sealing film 10 is automatically folded and wrapped into a tube shape by a machine and the middle line is plastic-sealed to form a tubular plastic sealing film 10. The glue injection tube 7 extends into the tubular plastic sealing film 10. While extruding, the bag is formed, realizing bag formation and filling at the same time, with high production efficiency, fast production speed and low enterprise production costs.

[0055] The steps S4 - S6 described above are mainly completed by a cold-curing plywood resin production and processing device. The cold-curing plywood resin production and processing device includes support legs 2 fixed on the ground. The top of the support legs 2 is fixedly installed with a vertical machine case 4. The top of the vertical machine case 4 is fixedly installed with a mixing and stirring cylinder 12. A screw conveyor 19 is arranged at the bottom of the mixing and stirring cylinder 12. The front end of the screw conveyor 19 is connected with a glue injection tube 7. The glue injection tube 7 is perpendicular to the ground of the vertical machine case 4 and is fixed on the front end face of the vertical machine case 4. A vibration motor 18 is arranged on the surface of the glue injection tube 7 and is fixed on the front end face of the vertical machine case 4. An inlet chamber 1903 communicating with the inside of the screw conveyor 19 is arranged at the bottom of the mixing and stirring cylinder 12. The inside of the screw conveyor 19 is communicated with the glue injection tube 7. A auger rod 1901 is arranged inside the screw conveyor 19. Specifically, the cold-curing plywood resin in the mixing and stirring cylinder 12 of the present invention enters the screw conveyor 19 downward through the inlet chamber 1903. The extrusion amount is controlled by the conveying servo motor in the screw conveyor 19. The extruded cold-curing plywood resin generates high-frequency vibration through the vibration motor 18 on the surface of the glue injection tube 7, so that the cold-curing plywood resin in the glue injection tube 7 quickly drops downward and is filled into the tubular plastic sealing film 10, reducing the adhesion of the resin on the inner wall of the glue injection tube 7.

[0056] A protective film tube 13 is fixed to the outer wall of the glue injection tube 7. The protective film tube 13 wraps around the glue injection tube 7. A film guiding flow plate 8 is provided at the top of the protective film tube 13. The film guiding flow plate 8 is of a semi-conical structure. The outer wall of the glue injection tube 7 is a smooth arc surface. On both sides of the film guiding flow plate 8, film guiding pressing strips 20 are symmetrically arranged. At the top of the vertical chassis 4, a support arm 15 is provided. The top of the support arm 15 is rotatably connected to a film winding cylinder 11. A plastic sealing film 10 is wound around the surface of the film winding cylinder 11. At the bottom of the film winding cylinder 11, a film feeding roller 16 is provided. The bottom end of the plastic sealing film 10 passes through the film feeding roller 16 and wraps around the outer wall of the film guiding flow plate 8. At the edge of the plastic sealing film 10 wrapped around the outer wall of the film guiding flow plate 8, the film guiding pressing strips 20 are provided to press and guide the flow. On the front face of the vertical chassis 4, a middle sealing mechanism 6 and a heat sealing and cutting mechanism 3 are provided. The middle sealing mechanism 6 is located above the bottom end of the glue injection tube 7 on the front face of the vertical chassis 4. Below the middle sealing mechanism 6, a pressing wheel 5 is provided. The heat sealing and cutting mechanism 3 is provided below the glue injection tube 7. A storage box 1 is placed at the bottom of the vertical chassis 4. The storage box 1 is used to store the pre-packaged bags that have been assembled and dropped from the vertical chassis 4.

[0057] Among them, two film feeding rollers 16 are provided. The two film feeding rollers 16 are arranged below the film winding cylinder 11. The two film feeding rollers 16 rotate in reverse synchronously. And one of the film feeding rollers 16 is driven to rotate by an independent servo motor. Among them, the reverse synchronous rotation between the two film feeding rollers 16 can be realized by the meshing rotation of two meshing gears, or can be realized by a belt pulley and a transmission belt.

[0058] Specifically, in the present invention, by providing a film winding cylinder 11 at the top of the vertical chassis 44, the plastic sealing film 10 wound around the surface of the film winding cylinder 11 is transferred downward through the film feeding roller by the rewinding rotation of the film winding cylinder 11. The plastic sealing film 10 rewound by the film winding cylinder 11 is guided by the film guiding flow plate 8. With the cooperation of the film guiding pressing strips 20 on both sides of the film guiding flow plate 8 pressing the two side edges of the plastic sealing film 10, the plastic sealing film 10 rewound by the film winding cylinder 11 is guided along the film guiding pressing strips 20, so that the plastic sealing film 10 is wrapped around the protective film tube 13 through the film guiding flow plate 8 and folded along the outer wall contour of the protective film tube 13 to form a tubular plastic sealing film 10. The tubular plastic sealing film 10 is heat-sealed at the edge joint by the middle sealing clamping plate assembly 602 that reciprocally clamps in the middle of the middle sealing mechanism 6 to form a plastic sealing center line.

[0059] Two pressing wheels 5 are provided. The two pressing wheels 5 are arranged side by side on the front face of the vertical chassis 4. And the two pressing wheels 5 rotate in reverse on the front face of the vertical chassis 4. The plastic sealing center line formed by heat sealing passes through the middle of the two pressing wheels 5. By the reverse rotation of the two pressing wheels 5, the plastic sealing center line formed by heat sealing is roll-pressed, effectively improving the plastic sealing tightness of the plastic sealing center line.

[0060] The center-sealing mechanism 6 includes fixed frames 601 symmetrically arranged on the left and right sides of the glue injection tube 7. Each fixed frame 601 on one side is fixedly installed on the front surface of the vertical chassis 4. Guide rod sleeves are symmetrically arranged at the upper and lower ends of each fixed frame 601 on one side. The piston rods of the pneumatic cylinders 604 on the two fixed frames 601 extend towards the glue injection tube 7. The top of the piston rod of each pneumatic cylinder 604 on one side is provided with a center-sealing clamping plate assembly 603. One guide rod 602 is arranged at each of the upper and lower ends of the center-sealing clamping plate assembly 603. The guide rod 602 is slidably connected to the guide rod sleeves at the upper and lower ends of the fixed frame 601, facilitating the reciprocating clamping of the center-sealing clamping plate assembly 603 along the direction of the glue injection tube 7 by the piston rods of the pneumatic cylinders 604 on the left and right sides of the glue injection tube 7.

[0061] The center-sealing clamping plate assembly 603 includes L-shaped support plates 610 arranged on the left and right sides of the glue injection tube 7. An edge film pusher 609 is arranged on the surface of one of the L-shaped support plates 610. The edge film pusher 609 stands upright on the ground at the bottom of the vertical chassis 4. The edge film pusher 609 is of a straight bar structure. The topmost position of the convex surface of the edge film pusher 609 is provided with an arc transition circle 613. A constant-temperature hot melt sheet 611 is provided on the surface of the other L-shaped support plate 610. The surface of the constant-temperature hot melt sheet 308 is provided with an arc-shaped curved surface that fits the edge film pusher 609.

[0062] Specifically, in this embodiment, the present invention prevents scalding the plastic film 10 during the pushing process by providing an edge film pusher 609 on the surface of one of the L-shaped support plates 610. The edge film pusher 609 is a convex structure and does not generate heat. The surface of the constant-temperature hot melt sheet 611 is an arc-shaped curved surface, which can effectively prevent the plastic film 10 from being accidentally melted. The plastic film 10 is safely and reliably processed without melting during the plastic sealing process. The plastic film 10 is pushed by the edge film pusher 609 onto the surface of the constant-temperature hot melt sheet 611 with an arc-shaped depression, so as to achieve hot melting at a preset position on the surface of the plastic film 10. Through the cooperation of the arc transition circle 613 on the surface of the edge film pusher 609 and the arc-shaped curved surface of the constant-temperature hot melt sheet 611, the hot melt plastic sealing process forms a crease-free plastic sealing and fastening on the center line of the formed plastic film 10. Moreover, the arc-shaped bending design of the edge film pusher 609 and the constant-temperature hot melt sheet 611 can improve the clamping force during the hot melting process of the plastic film 10, so that the film pushing roller 606 is safer and more reliable during the process of pushing the plastic film 10 and prevents de-melting.

[0063] At the top of the L-shaped support plate 610 on each side, a hinge support 614 is fixed. A swing arm frame 607 is rotatably connected to the surface of the hinge support 614. At the top of the swing arm frame 607, a film-pushing roller 606 is rotatably connected. A resistance wheel 605 is in rolling contact with the edge of the film-pushing roller 606. A pressing spring 608 is arranged in the middle of the swing arm frame 607. The other end of the pressing spring 608 is fixed to the other side of the L-shaped support plate 610. A foam soft package 612 is wrapped around the outer wall of the film-pushing roller 606.

[0064] Specifically, in this embodiment, the present invention sets a film winding cylinder 11 at the top of the vertical chassis 44. The plastic sealing film 10 wound on the surface of the film winding cylinder 11 is transferred downward through the reverse rotation of the film feeding roller. The plastic sealing film 10 rewound by the film winding cylinder 11 is guided by the film guiding flow plate 8. The film guiding pressure strips 20 on both sides of the film guiding flow plate 8 press the two side edges of the plastic sealing film 10. The plastic sealing film 10 rewound by the film winding cylinder 11 is guided along the film guiding pressure strips 20, so that the plastic sealing film 10 is wrapped around the film protection tube 13 through the film guiding flow plate 8 and folded along the outer wall contour of the film protection tube 13 to form a tubular plastic sealing film 10. The middle sealing mechanism 6 reciprocally clamps the middle sealing plate assembly 602 in the middle to heat-seal the edge joint of the tubular plastic sealing film 10 and form a sealing center line; since there is too much plastic sealing film 10 accumulated at the edge folding part of the tubular plastic sealing film 10 on the outer wall of the film protection tube 13, during the middle sealing process of the middle sealing plate assembly 602 towards the middle, when the edge film pushing block 609 and the constant temperature hot melt sheet 611 are about to be completely tightly attached, through the design of the swing arm frame 607, the pressing spring 608, and the film-pushing roller 606, the film-pushing roller 606 will push the plastic sealing film 10 on the outer wall of the film protection tube 13 to move slightly outward to tighten the heat-sealing area of the plastic sealing film 10, which can effectively prevent the plastic sealing film 10 from piling up or stacking near the constant temperature hot melt sheet 611 during the heat-sealing process, and prevent it from being melted and adhered, thereby reducing the situation that the middle heat-sealing of the packaging bag is not firm and reliable.

[0065] Specifically, in this embodiment, the present invention designs the film-pushing roller 606 and the resistance wheel 605. When the initial film-pushing roller 606 initially contacts the plastic-sealed film 10 on the outer wall of the film-protecting tube 13 and continues to approach the outer wall of the film-protecting tube 13, due to the design of the hinge support 614, the film-pushing roller 606 will roll outward along the outer wall of the film-protecting tube 13 during the extrusion process, and due to the design of the resistance wheel 605, the film-pushing roller 606 will generate rotational resistance during the rolling process, so that the film-pushing roller 606 rotates along the outer wall of the film-protecting tube 13 during the initial pushing of the plastic-sealed film 10, thereby enabling the film-pushing roller 606 to tighten the plastic-sealed film 10 on the outer wall of the film-protecting tube 13. Moreover, the foam soft package 612 wrapped on the outer wall of the film-pushing roller 606 can more effectively improve the protection of the surface of the plastic-sealed film 10. When the plastic-sealed film 10 is tightened, if the film-pushing roller 606 still needs to continue moving at this time, since the plastic-sealed film 10 has been tightened, at this time, the film-pushing roller 606 changes from sliding to rolling on the surface of the plastic-sealed film 10 on the outer wall of the film-protecting tube 13, thereby driving the resistance wheel 605 to rotate. Therefore, through the design of the film-pushing roller 606 and the resistance wheel 605, it can effectively protect the plastic-sealed film 10 from being damaged by the film-pushing roller 606 during the process of pushing the plastic-sealed film 10.

[0066] The heat-sealing and cutting mechanism 3 includes a fixed chassis 303 fixed to the front end face of the vertical chassis 4. A heat-sealing and cutting port 316 is opened on the top end face of the fixed chassis 303. The filled plastic-sealed film 10 will fall into the heat-sealing and cutting port 316. There are reciprocating clamping movable splints 304 symmetrically arranged on the left and right sides of the heat-sealing and cutting port 316. A relief groove 306 is opened on the surface of one of the movable splints 304, and a cutting knife 310 is arranged on the surface of the other movable splint 304.

[0067] On the back of the movable splints 304 on both sides, a sliding shaft rod 301 is arranged respectively. The sliding shaft rod 301 is slidably connected to the fixed chassis 303. Pneumatic cylinders 302 are symmetrically arranged on the left and right sides of the fixed chassis 303. The pneumatic cylinders 302 extend pistons into the heat-sealing and cutting port 316, and the movable splints 304 are fixed to the top ends of the pistons of the pneumatic cylinders 302. In the present invention, the cutting knife 310 is arranged at the middle position between two parallel constant-temperature hot-melt sheets 308. During one clamping process of the two movable splints 304, it can not only complete the hot-melt plastic sealing of the top end of the lower sub-packaging bag and the bottom end of the upper sub-packaging bag, but also automatically cut the connection between adjacent two sub-packaging bags, realizing automatic cutting.

[0068] On the surface of one of the movable splints 304, two parallel plastic-sealing pushing blocks 305 are arranged. Each plastic-sealing pushing block 305 is of a straight bar structure. The topmost protruding position of each plastic-sealing pushing block 305 is provided with an arc transition circle 307. On the surface of one of the movable splints 304, a constant-temperature hot-melt sheet 308 corresponding to the plastic-sealing pushing block 305 is opened.

[0069] Specifically, in the present embodiment, the heat-sealing cutting mechanism 3 of the present invention is provided with two parallel plastic sealing push blocks 305 on the surface of the movable clamping plate 304, and cooperates with the two constant temperature hot melt sheets 308 corresponding to the plastic sealing push blocks 305, so that the two movable clamping plates 304 can be clamped at one time to perform hot melt plastic sealing on the top of the lower packaging bag and the bottom of the upper packaging bag, and through the design of the arc-shaped transition circle 307 and the constant temperature hot melt sheet 308, the hot melt area can be hot-melt sealed without creases during the hot melt plastic sealing process, thereby improving the tightness of the plastic sealing.

[0070] A transmission cavity 321 is provided inside the movable clamping plate 304 located on the side of the cutting knife 310. A connecting rod 309 extends from the top of the movable clamping plate 304. The connecting rod 309 is slidably connected to the inside of the movable clamping plate 304. The other end of the connecting rod 309 extends into the transmission cavity 321. A hinge support 318 is fixedly provided on the inner wall of the transmission cavity 321. A swing rod 317 is rotatably connected to the surface of the hinge support 318. The top end of the connecting rod 309 extending into the transmission cavity 321 contacts with the swing rod 317.

[0071] A movable slide groove 311 is provided in the middle of the movable clamping plate 304, a tool slide plate 314 is slidably connected inside the movable slide groove 311, a cutting knife 310 is arranged at the top of the tool slide plate 314, a push rod 315 is provided at the other end of the tool slide plate 314, a pin rod 320 is provided at the top of the push rod 315, a linear straight slide groove 319 is provided at the bottom end of the swing rod 317, and the pin rod 320 at the top of the push rod 315 is slidably connected in the linear straight slide groove 319;

[0072] A spring pressure plate 312 is disposed on the surface of the tool slide plate 314 . The spring pressure plate 312 is slidably connected in the movable slide groove 311 . A tool retracting spring 313 is disposed on the surface of the spring pressure plate 312 slidably connected in the movable slide groove 311 .

[0073] Specifically, in the present embodiment, the cutting knife 310 of the present invention is arranged in the middle position of two parallel constant temperature hot melt sheets 308. During the one-time clamping process of the two movable splints 304, the top of the lower sub-packaging bag and the bottom of the upper sub-packaging bag can be hot-melt-sealed, and the connection between two adjacent sub-packaging bags can be automatically cut to achieve automatic cutting. During the clamping process of the two movable splints 304, the connecting support rod 309 is pushed to move into the transmission cavity 321, and the connecting support rod 309 pushes the swing rod 317 to swing along the hinge support 2. During the swinging process of the swing rod 317, the cutting knife 310 is pushed to extend into the give way groove 306 through the design of the linear straight line slide groove 319 and the pin rod 320, so that the two adjacent connected sub-packaging bags are cut and separated from the middle, thereby achieving the one-time clamping process of the two movable splints 304. The top of the lower sub-packaging bag and the bottom of the upper sub-packaging bag can be hot-melt-sealed, and the cutting between two adjacent sub-packaging bags can be automatically cut.

[0074] Specifically, in the present embodiment, the design of the knife retraction spring enables the knife retraction spring to push the cutting knife 310 to retract during the separation of the two movable splints 304, and the cutting knife 310 pushes the swing rod 317 to swing during the retraction, and the swing rod 317 pushes the connecting support rod 309 to be ejected outward during the swinging process, thereby realizing automatic knife retraction and return to the original position, facilitating the next bonding of the two movable splints 304, and repeatedly completing the hot-melt plastic sealing of the top end of the lower sub-packaging bag and the bottom end of the upper sub-packaging bag, and can also automatically split and complete the cutting between two adjacent sub-packaging bags.

[0075] The mixing drum includes a mixing chamber 1202 opened inside the mixing drum 12, a stirring rod 1201 is rotatably connected inside the mixing chamber 1202, a stirring motor 1203 is fixedly installed on the top of the mixing drum 12, a stirring motor 1203 is arranged on the top of the stirring rod 1201 to drive the rotation, a filling port 1204 is opened on the top of the mixing drum 12, and the filling port 1204 is connected to the stirring chamber 1202. The prepared cold-curing plywood resin is transferred to the mixing drum 12 for storage, and the rotating stirring rod 1201 is arranged inside the mixing drum 12 to stir the cold-curing plywood resin in the mixing drum 12, so that the cold-curing plywood resin in the mixing drum 12 maintains fluidity and activity.

[0076] A tungsten wire tube 1205 is wound inside the mixing drum 12. The tungsten wire tube 1205 is electrically heated. When heating and heat preservation are required, the tungsten wire tube 1205 is used to heat the mixing drum 12 in combination with the stirring rod 1201 to stir the mixing drum 12, thereby controlling the internal temperature of the mixing drum 12.

[0077] Example 2

[0078] This embodiment has similarities with the above-mentioned Embodiment 1, and the similarities will not be elaborated in this embodiment. The specific differences are as follows:

[0079] According to a method for producing and processing cold-curing plywood resin described in the above-mentioned Embodiment 1, this embodiment also provides a cold-curing plywood resin, which is made of the following components by weight: 100 parts of modified phenolic resin, 20 parts of nano-wave-absorbing particle-modified polymer, 0.5 part of plasticizer, 100 parts of functional filler, 2 parts of β-(3,4-epoxycyclohexyl)ethyltriethoxysilane, 1 part of cardanol, 18 parts of ethylene glycol, and 0.5 part of functional catalyst.

[0080] The method for treating the modified phenolic resin is as follows:

[0081] (1) Add lignocellulose to acetone, then add a catalyst and sodium alginate. Under the protection of an inert atmosphere, adjust the temperature to 120°C, keep warm and stir for 30 minutes, then remove acetone, wash with water, and dry to obtain modified lignocellulose.

[0082] (2) Add the modified lignocellulose, phenol, and oxalic acid to the reaction kettle in sequence, adjust the temperature to 80°C, keep warm and stir for 2 hours to obtain the first reaction solution.

[0083] (3) Adjust the temperature of the first reaction solution to 90°C, then add formaldehyde solution, stir at a speed of 500 r / min for 1 hour, then let it stand for 2 hours, then discharge, wash with water, and dry to obtain the modified phenolic resin.

[0084] The mixing weight ratio of lignocellulose, acetone, catalyst, and sodium alginate is: 15:30:0.5:1; the catalyst is a solid acid catalyst; the inert atmosphere is nitrogen.

[0085] The mixing molar ratio of modified lignocellulose, phenol, and oxalic acid is 3:12:12; the mixing mass ratio of the first reaction solution and formaldehyde solution is 10:3; the mass fraction of the formaldehyde solution is 18.5%.

[0086] The preparation method of the nano-wave-absorbing particle-modified polymer is: Add polyurethane resin to acetone, stir evenly to obtain a polyurethane solution; add silicon carbide to the polyurethane solution, perform ultrasonic treatment, then remove acetone, then add iron powder, stir evenly, and then dry and pulverize to obtain the nano-wave-absorbing particle-modified polymer.

[0087] The mixing mass ratio of polyurethane resin and acetone is 1:10; the silicon carbide is nanoscale; the mixing mass ratio of silicon carbide and polyurethane solution is 1:20; the mixing mass ratio of polyurethane and iron powder is: 5:1;

[0088] The plasticizer is any one of dioctyl phthalate, diisodecyl phthalate, diisononyl phthalate, and polyether polyol.

[0089] The functional filler is any one or more of kaolin, silica, calcium carbonate, and silica powder; the functional catalyst is an organotin chelate.

[0090] Example 3

[0091] This example has the same parts as the above Examples 1 and 2, which will not be elaborated in this example. The specific differences are as follows:

[0092] According to a method for producing and processing a cold-curing plywood resin described in Example 1 and a cold-curing plywood resin described in Example 2, this example also provides an application of the cold-curing plywood resin. The cold-curing plywood resin obtained by production and processing is applied to the surface of the board and left to dry for a certain period of time. Pressure is applied during the curing process to prevent the formation of pores and ensure the density of the adhesive layer. After the two boards are firmly bonded by the cold-curing plywood resin, it is completed.

[0093] The above shows and describes the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above examples. The descriptions in the above examples and the specification only illustrate the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A method for producing and processing cold-curing plywood resin, characterized in that: The cold-curing plywood resin production and processing method mainly includes the following steps: S1. Drying of functional fillers: Dry the functional fillers until the moisture content is less than 1000PPM; S2, preparing a first mixture: uniformly mixing the nano-absorbing particle modified polymer, the plasticizer, the dried functional filler, and the modified phenolic resin to obtain a first mixture; S3, preparing a cold-curing plywood resin: uniformly mixing a functional catalyst, β-ethyltriethoxysilane, cardanol, ethylene glycol and the first mixture obtained in step S2 to obtain a cold-curing plywood resin; S4, preparing the sub-packaging bags: the sub-packaging bags required for sub-packaging the cold-cured plywood resin obtained in step S3 are pre-treated before the sub-packaging of the cold-cured plywood resin, and the plastic sealing film used for preparing the sub-packaging bags is folded and rolled into a tube and the center line is plastic-sealed to form a tubular plastic sealing film; S5, resin packaging: the cold-cured plywood resin obtained in step S3 is transferred to a mixing drum for storage, and the cold-cured plywood resin in the mixing drum is squeezed downward through a glue injection tube, and the extruded cold-cured plywood resin enters a tubular plastic film; S6, sealing the sub-packaging bag: the upper and lower ends of the cold-cured plywood resin entering the tubular plastic sealing film in step S4 are sealed tightly, and the sub-packaging bag is formed by pressing and clamping from above and below the cold-cured plywood resin entering the tubular plastic sealing film, and the cold-cured plywood resin is sealed in the sub-packaging bag.

2. The method for producing and processing cold-curing plywood resin according to claim 1, characterized in that: The above-mentioned steps S4-S6 are mainly completed by a cold-curing plywood resin production and processing device, which includes a support leg fixed to the ground, a vertical case is fixedly installed on the top of the support leg, a mixing drum is fixedly installed on the top of the vertical case, a screw conveyor is arranged at the bottom of the mixing drum, a glue injection pipe is connected to the front end of the screw conveyor, the glue injection pipe is perpendicular to the ground of the vertical case, the glue injection pipe is fixed to the front end face of the vertical case, a vibration motor is arranged on the surface of the glue injection pipe, a protective film pipe is fixed to the outer wall of the glue injection pipe, the protective film pipe is wrapped around the glue injection pipe, a film guide plate is arranged on the top of the protective film pipe, the film guide plate is a semi-conical structure, and the glue injection pipe The outer wall of the film guide plate is a smooth arc surface, and film guide strips are symmetrically arranged on both sides of the film guide flow plate, and a supporting arm is arranged on the top of the vertical case, and the top of the supporting arm is rotatably connected to a film roll drum, and a plastic sealing film is wound on the surface of the film roll drum, and a film feeding roller is arranged at the bottom of the film roll drum, and the bottom end of the plastic sealing film passes through the film feeding roller and is wrapped around the outer wall of the film guide flow plate, and a film guide strip is arranged on the edge of the plastic sealing film wrapped around the outer wall of the film guide flow plate to compress and guide the flow; a middle sealing mechanism and a heat sealing and cutting mechanism are arranged on the front end face of the vertical case, and the middle sealing mechanism is located above the bottom end of the glue injection tube on the front end face of the vertical case, and a pressure wheel is arranged below the middle sealing mechanism, and the heat sealing and cutting mechanism is arranged below the glue injection tube, and a storage box is placed at the bottom of the vertical case.

3. The method for producing and processing cold-curing plywood resin according to claim 2, characterized in that: The center sealing mechanism includes fixed frames symmetrically arranged on the left and right sides of the glue injection pipe, the fixed frames on each side are fixedly installed on the front end surface of the vertical chassis, the fixed frames on each side are symmetrically provided with guide rod sleeves at the upper and lower ends, the pneumatic cylinders on the fixed frames on both sides have piston rods extending toward the glue injection pipe, the top of the piston rod of the pneumatic cylinders on each side is provided with a center sealing splint assembly, the upper and lower ends of the center sealing splint assembly are respectively provided with a guide rod, and the guide rod is slidably connected in the guide rod sleeves at the upper and lower ends of the fixed frames.

4. The method for producing and processing cold-curing plywood resin according to claim 3, characterized in that: The central sealing splint assembly includes an L-shaped bracket plate arranged on the left and right sides of the glue injection tube, wherein an edge membrane push block is arranged on the surface of the L-shaped bracket plate on one side, and the edge membrane push block is upright on the ground at the bottom of the vertical chassis, and the edge membrane push block is a straight strip structure, and an arc-shaped transition circle is arranged at the top position of the raised surface of the edge membrane push block, and a constant temperature hot melt sheet is provided on the surface of the L-shaped bracket plate on the other side, and an arc-shaped curved surface that fits the edge membrane push block is arranged on the surface of the constant temperature hot melt sheet.

5. The method for producing and processing cold-curing plywood resin according to claim 4, characterized in that: A hinge support is fixed to the top of the L-shaped bracket plate on each side, and the surface of the hinge support is rotatably connected to a swing arm frame, and the top of the swing arm frame is rotatably connected to a film pushing roller, and the edge of the film pushing roller is rollingly fitted with a resistance wheel, and a pressing spring is provided in the middle of the swing arm frame, and the other end of the pressing spring is fixed to the other side of the L-shaped bracket plate, and the outer wall surface of the film pushing roller is wrapped with a foam soft bag.

6. The method for producing and processing cold-curing plywood resin according to claim 2, characterized in that: The heat-sealing cutting mechanism comprises a fixed case fixed to the front end of the vertical case, a heat-sealing cutting opening is provided on the top end of the fixed case, and movable clamping plates for reciprocating clamping are symmetrically arranged on the left and right sides of the heat-sealing cutting opening, wherein a clearance groove is provided on the surface of the movable clamping plate on one side, and a cutting knife is provided on the surface of the movable clamping plate on the other side; The back of the movable splints on both sides are each provided with a sliding shaft rod, and the sliding shaft rod is slidably connected to the fixed chassis. The left and right sides of the fixed chassis are symmetrically provided with two pneumatic cylinders, and the two pneumatic cylinders have piston rods extending into the heat-sealed cut-off port. The movable splints are fixed to the top of the piston rod of the two pneumatic cylinders.

7. A method for producing and processing cold-curing plywood resin according to claim 6, characterized in that: Two parallel plastic sealing push blocks are arranged on the surface of the movable splint on one side, each of which is a straight strip structure, and an arc-shaped transition circle 2 is arranged at the topmost position of the protrusion on the surface of each plastic sealing push block, and a constant temperature hot melt sheet 2 corresponding to the plastic sealing push block is opened on the surface of the movable splint on one side.

8. The method for producing and processing cold-curing plywood resin according to claim 6, characterized in that: A transmission cavity is provided inside the movable splint located on the side of the cutting knife, a connecting rod extends from the top of the movable splint, the connecting rod is slidably connected to the inside of the movable splint, the other end of the connecting rod extends into the transmission cavity, a hinge support seat 2 is fixedly provided on the inner wall of the transmission cavity, a swing rod is rotatably connected to the surface of the hinge support seat 2, and the top end of the connecting rod extending into the transmission cavity contacts the swing rod; A movable slide groove is provided in the middle of the movable splint, a tool slide is slidably connected inside the movable slide groove, the cutting knife is arranged at the top of the tool slide, a push rod is provided at the other end of the tool slide, a pin is provided at the top of the push rod, a linear straight slide groove is provided at the bottom end of the swing rod, and the pin at the top of the push rod is slidably connected in the linear straight slide groove; A spring pressure plate is arranged on the surface of the tool slide plate, and the spring pressure plate is slidably connected in the movable slide groove. A tool retracting spring is arranged on the surface of the spring pressure plate slidably connected in the movable slide groove.

9. A cold-curing plywood resin, characterized in that: According to the production and processing method of a cold-curing plywood resin according to claim 1, a cold-curing plywood resin is also provided, which is made of the following components by weight: 100-120 parts of modified phenolic resin, 20-30 parts of nano-absorbing particle modified polymer, 0.5-100 parts of plasticizer, 100-300 parts of functional filler, 2-5 parts of β-(3,4-epoxycyclohexyl)ethyltriethoxysilane, 1-3 parts of cardanol, 18-25 parts of ethylene glycol, and 0.5-10 parts of functional catalyst; the functional filler is any one or more of kaolin, white carbon black, calcium carbonate, and silicon micropowder.

10. An application of cold-curing plywood resin, characterized in that: According to the method for producing and processing a cold-curing plywood resin as described in claim 1, an application of the cold-curing plywood resin is also provided, wherein the cold-curing plywood resin produced and processed in claim 1 is applied to the surface of a board and left to air-dry for a certain period of time, and pressure is applied during the curing process to prevent the formation of pores and ensure the density of the glue layer, and the two boards are firmly bonded by the cold-curing plywood resin.

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