A production equipment for polyurethane material products
By setting up internal movable modules and notch filling and trimming modules in the polyurethane tube and shell production equipment, processing bubbles and trimming surface bump burrs, bubble retention and surface problems during polyurethane tube and shell molding are solved, and production efficiency and quality are improved.
Patent Information
- Application Number
- CN202411846679.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-16
- Publication Date
- 2025-02-28
- Estimated Expiration
- 2044-12-16
AI Technical Summary
During the molding process, existing polyurethane tube shells are prone to first cooling and bubble retention, which affects the cooling and curing effect. At the same time, there are bumps and edge burrs on the surface after molding, which is difficult to trim, affecting the subsequent splicing use and production quality.
A production equipment for polyurethane material products was designed. By setting up internal movable modules and notch filling and trimming modules, the bubbles were processed in the injection molding cavity using the movable structure of the arc-shaped sealing plate and the front-end mesh plate, and the surface of the molded polyurethane tube shell was trimmed by pronunciation filling shells and trimming shells.
It effectively solves the problems of bubble retention and surface bump burrs during the molding of polyurethane tube shells, improves the efficiency and quality of injection molding production, and ensures the stable splicing and use of polyurethane tube shells.
Smart Images
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Abstract
Description
Technical Field
[0001] The invention relates to the technical field of plastic processing, and in particular to a production device for polyurethane material products. Background Art
[0002] The polyurethane shell is a polyurethane product made of injection molding of polyurethane material. It is used for external thermal insulation of pipelines and can effectively prevent the penetration of water, moisture and other corrosive liquids and gases. The polyurethane material is injected into the molding mold that matches the shape of the polyurethane shell. The polyurethane material fills the cavity in the molding mold and then solidifies. The polyurethane material is injected from one end of the molding mold. The injected polyurethane material gradually flows from one end of the cavity to other areas of the cavity in the closed cavity. The polyurethane material that enters the cavity first and is in the front part is prone to cooling first because it flows to the right place first. Some bubbles in the polyurethane material will also remain in the corresponding area inside the cavity, affecting the cooling and curing effect of the polyurethane shell. After the polyurethane shell is directly taken out from the molding mold, there are some convex points and edge burrs on the surface of the shell. It is impossible to directly trim the surface convex points and edge burrs of the polyurethane shell after the molding, which affects the subsequent splicing and use of the polyurethane shell, is not conducive to the stable and effective injection molding production of the polyurethane shell, and affects the production quality of the polyurethane shell. Summary of the invention
[0003] In order to overcome the above-mentioned defects of the prior art, the present invention provides a production equipment for polyurethane material products, by setting two upper mold bases, one on the left and the other on the right, which are clamped on the top of the lower mold base, and the inner movable module and the gap filling and trimming module are tightly fixed and spliced together from the outside to the inside of the lower mold base, and the positioned contoured supplementary shell and the trimming shell can supplement the excess space between the injection cavity and the inner movable module, and the arc-shaped sealing plate and the arc-shaped mesh partition plate separate the internal space of the injection cavity to separate the injection plastic, and the arc-shaped sealing plate and the front end mesh plate move outward in turn to allow the injection plastic to impact inside the injection cavity, mix the injection plastic and deal with bubbles from the inside of the injection plastic. After the polyurethane tube shell is formed, the contoured supplementary shell moves horizontally outward to make way for the trimming shell, and the trimming shell moves horizontally on the surface of the polyurethane tube shell to trim the surface of the polyurethane tube shell passing by, thereby improving the injection molding production effect and efficiency of the polyurethane tube shell, so as to solve the problems raised in the above-mentioned background technology.
[0004] To achieve the above object, the present invention provides the following technical solutions:
[0005] A production equipment for polyurethane material products, including an injection molding tube, a tube shell shaping module is arranged below the injection molding tube, the tube shell shaping module includes a lower mold base and an upper mold base, the number of the upper mold base is two, the two upper mold bases are molded on the top of the lower mold base, one left and one right, to form an injection molding cavity that matches the polyurethane tube shell, the injection molding tube is connected to the tube shell shaping module to injection-mold the polyurethane tube shell; an inner movable module is arranged inside the tube shell shaping module, the inner movable module includes an arc-shaped mesh partition, a docking cross plate, an arc-shaped sealing plate and a front end mesh plate, the front end mesh plate is positioned at the front end of the arc-shaped mesh partition through the docking cross plate, the arc-shaped sealing plate is movable on the inner side wall of the arc-shaped mesh partition, and the aligned arc-shaped sealing plate and the arc-shaped mesh partition separate the inner space of the injection molding cavity The injection plastic is separated by the arc sealing plate and the front end mesh plate move outward in turn to allow the injection plastic to impact inside the injection molding cavity, and the front end mesh plate moves inside the injection plastic to capture and intercept bubbles, and the captured bubbles are moved out of the injection plastic along with the front end mesh plate to deal with the bubbles existing in the injection plastic; a gap filling and trimming module is provided inside the tube shell shaping module, and the gap filling and trimming module includes a contouring supplement shell, a contouring upper plate, a contouring lower plate and a trimming shell, the contouring upper plate and the contouring lower plate are positioned one above and one below the inner side of the contouring supplement shell, the contouring upper plate and the contouring lower plate guide the inner movable module as a whole to move horizontally inside the tube shell shaping module, and the trimming shell moves at the front end of the contouring supplement shell to trim the surface of the polyurethane tube shell passing through.
[0006] Furthermore, the contoured portion of the upper die seat rotates on the top of the lower die seat, the free ends of the contoured portions of the two upper die seats are snap-connected, and the injection tube is plugged into the contoured portions of the two upper die seats.
[0007] Furthermore, the docking transverse plate is fixedly connected to the upper end of the arc-shaped mesh partition plate, and the front end mesh plate is fixedly connected to the front end of the docking transverse plate.
[0008] Furthermore, a docking groove corresponding to the front-end mesh plate is formed on the inner wall of the lower die base, and the front-end mesh plate is snap-connected inside the docking groove, and the front-end mesh plate is flush with the inner wall of the lower die base.
[0009] Furthermore, the contoured upper plate and the contoured lower plate are both slidably connected to the inner wall of the contoured supplementary shell, the contoured supplementary shell and the trimming shell are both snap-connected to the inner side of the tube shell shaping module, and the dimensions of the contoured supplementary shell and the trimming shell are larger than the front end mesh plate.
[0010] Furthermore, the arc-shaped mesh partition and the arc-shaped sealing plate are slidably connected between the contoured upper plate and the contoured lower plate, and the side of the docking transverse plate away from the arc-shaped mesh partition is slidably connected to the inner wall of the contoured supplementary shell.
[0011] Furthermore, the front end of the arc-shaped mesh partition is fixedly connected to two side plates, the side plates are fixedly connected to guide blocks, the outer wall of the lower mold base is provided with two guide grooves corresponding to the guide blocks, and the guide blocks are snap-connected inside the corresponding guide grooves.
[0012] Furthermore, two operating blocks are fixedly connected to the top of the trimming shell, and the upper die base is provided with clearance grooves corresponding to the operating blocks, and the operating blocks are snap-connected inside the corresponding clearance grooves.
[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: the present technical solution sets an inner movable module and a gap filling and trimming module which are spliced together in a corresponding position. After the two are spliced together, they can be directly placed into the lower mold base from the top of the lower mold base, and the two profiling parts on the upper mold base, one on the left and one on the right, are rotated and molded to the top of the lower mold base, effectively fixing the inner movable module and the gap filling and trimming module from the outside, and the positioned profiling and trimming shell and the trimming shell can fill the excess space between the injection molding cavity and the inner movable module, ensuring that the subsequent injection molding of the polyurethane tube shell will not have a thickened surface, and the arc-shaped sealing plate and the arc-shaped mesh partition separate the internal space of the injection molding cavity to separate the injection molding material, so that the injection molding material is temporarily There is an upper area of the injection cavity, and the arc-shaped sealing plate and the front-end mesh plate move outward in turn to make the injection plastic impact inside the injection cavity, mix the injection plastic and deal with bubbles from inside the injection plastic, which can effectively carry out pre-treatment of cooling and solidification of the injection plastic. After the polyurethane tube shell is formed, the contoured supplementary shell moves horizontally outward to make way for the trimming shell, and the trimming shell moves horizontally on the surface of the polyurethane tube shell to trim the surface of the passing polyurethane tube shell, which can effectively directly perform surface bumps and edge burrs on the polyurethane tube shell after production, thereby improving the injection molding production effect and efficiency of the polyurethane tube shell, improving the production quality of the polyurethane tube shell, and ensuring the subsequent stable splicing and use of the polyurethane tube shell. BRIEF DESCRIPTION OF THE DRAWINGS
[0014] In order to more clearly illustrate the technical solution in the embodiment, the drawings in the embodiment are briefly introduced below.
[0015] Figure 1 It is a structural schematic diagram of the present invention;
[0016] Figure 2 It is a structural schematic diagram of another perspective of the present invention;
[0017] Figure 3 It is a schematic diagram of the cross-sectional structure of the present invention from the side;
[0018] Figure 4 It is a structural schematic diagram of the operation block of the present invention;
[0019] In the figure: 1. injection molding tube; 2. tube shell shaping module; 21. lower die seat; 211. guide groove; 212. docking groove; 22. upper die seat; 221. give way groove; 3. inner movable module; 31. arc mesh partition; 32. docking cross plate; 33. arc sealing plate; 34. front end mesh plate; 35. side plate; 36. guide block; 4. gap filling and trimming module; 41. contoured supplement shell; 42. contoured upper plate; 43. contoured lower plate; 44. trimming shell; 441. operating block. DETAILED DESCRIPTION
[0020] The following is a clear and complete description of the technical solution in the embodiment of the present invention in conjunction with the accompanying drawings in the embodiment of the present invention. Figures 1 to 4 The detailed description of the structure will clearly show that the structural contents mentioned in the following embodiments are all based on the drawings in the specification.
[0021] See also Figure 1 to Figure 4 In an embodiment of the present invention, a production device for a polyurethane material product includes an injection molding tube 1, a tube shell shaping module 2 is provided below the injection molding tube 1, the tube shell shaping module 2 includes a lower mold base 21 and an upper mold base 22, the number of the upper mold base 22 is two, the two upper mold bases 22 are molded on the top of the lower mold base 21, one on the left and one on the right, to form an injection molding cavity that matches the polyurethane tube shell, the injection molding tube 1 is connected to the tube shell shaping module 2 to inject the polyurethane tube shell; an inner movable module 3 is provided inside the tube shell shaping module 2, the inner movable module 3 includes an arc-shaped mesh partition 31, a docking cross plate 32, an arc-shaped sealing plate 33 and a front end mesh plate 34, the front end mesh plate 34 is positioned at the front end of the arc-shaped mesh partition 31 through the docking cross plate 32, the arc-shaped sealing plate 33 is movable on the inner side wall of the arc-shaped mesh partition 31, and the aligned arc-shaped sealing plates 33 are separated from the arc-shaped mesh partition 31 The internal space of the injection molding cavity is used to separate the injection molding material. The arc-shaped sealing plate 33 and the front-end mesh plate 34 move outward in turn to allow the injection molding material to impact inside the injection molding cavity. The front-end mesh plate 34 moves inside the injection molding material to capture and intercept bubbles. The captured bubbles are moved out of the injection molding material along with the front-end mesh plate 34 to deal with the bubbles existing in the injection molding material; a gap filling and trimming module 4 is provided inside the tube shell shaping module 2. The gap filling and trimming module 4 includes a profiling and supplementing shell 41, a profiling upper plate 42, a profiling lower plate 43 and a trimming shell 44. The profiling upper plate 42 and the profiling lower plate 43 are positioned one above and one below on the inner side of the profiling and supplementing shell 41. The profiling upper plate 42 and the profiling lower plate 43 guide the inner movable module 3 to move horizontally as a whole inside the tube shell shaping module 2. The trimming shell 44 moves at the front end of the profiling and supplementing shell 41 to trim the surface of the polyurethane tube shell passing through.
[0022] The tube shell shaping module 2 provides a molding space for the polyurethane tube shell. The tube shell shaping module 2 is composed of a lower mold base 21 and an upper mold base 22. The two upper mold bases 22 are molded on the top of the lower mold base 21, one on the left and one on the right, so as to facilitate the combination of the two upper mold bases 22 and the lower mold base 21. The profiling part of the upper mold base 22 rotates on the top of the lower mold base 21, and the free ends of the profiling parts of the two upper mold bases 22 are snap-connected, so that after the two upper mold bases 22 are molded to the bottom of the lower mold base 21, the profiling part can be effectively rotated on the top of the lower mold base 21, so that the profiling parts of the two upper mold bases 22 are clamped and spliced together, and are tightly molded on the top of the lower mold base 21 to form a complete polyurethane tube shell injection cavity. The injection molding tube 1 is inserted into the contoured parts of the two upper mold seats 22, so that the injection molding tube 1 is connected to the tube shell shaping module 2, so that the injection material can be effectively injected into the polyurethane tube shell injection molding cavity in the tube shell shaping module 2 through the injection molding tube 1, and the polyurethane tube shell is injection molded inside the tube shell shaping module 2.
[0023] The inner movable module 3 is used to splice the gap filling and trimming module 4, and the inner movable module 3 can enter the lower mold base 21 together with the gap filling and trimming module 4. The inner movable module 3 is composed of an arc mesh partition 31, a docking cross plate 32, an arc sealing plate 33 and a front end mesh plate 34. The docking cross plate 32 is fixedly connected to the high end of the arc mesh partition 31, and the front end mesh plate 34 is fixedly connected to the front end of the docking cross plate 32. The front end mesh plate 34 is stably combined at the front end of the docking cross plate 32 and the arc mesh partition 31 to ensure that the inner movable module 3 as a whole can be stably positioned inside the injection cavity in the tube shell shaping module 2, and move smoothly inside the injection cavity. The arc sealing plate 33 is slidably connected to the inner side wall of the arc mesh partition 31, so that the arc sealing plate 33 can move horizontally on the inner side of the arc mesh partition 31 against the inner side wall of the arc mesh partition 31, and the position of the arc sealing plate 33 is stably adjusted to expose or close the arc sealing plate 33. The arc-shaped sealing plate 33 is positioned on the inner side of the arc-shaped mesh partition 31 and aligned with the arc-shaped mesh partition 31, so that the arc-shaped sealing plate 33 and the arc-shaped mesh partition 31 can cooperate to separate the internal space of the injection molding cavity, and the injection plastic injected through the injection molding tube 1 enters the upper half of the injection molding cavity, effectively separating the injection plastic. The front end mesh plate 34 can move horizontally inside the injection molding cavity driven by the arc-shaped mesh partition 31, and the arc-shaped sealing plate 33 and the front end mesh plate 34 move outward in turn to allow the injection plastic to impact inside the injection molding cavity, effectively mixing the injection plastics that enter successively. The front end mesh plate 34 covers the cross-sectional area of the injection molding cavity, so that the front end mesh plate 34 moves inside the injection plastic, and the front end mesh plate 34 captures and intercepts bubbles through the mesh when passing through the injection plastic, so as to process the bubbles from inside the injection plastic. The inner wall of the lower mold base 21 is provided with a docking groove 212 corresponding to the front end mesh plate 34. The front end mesh plate 34 is snap-connected inside the docking groove 212. The front end mesh plate 34 is flush with the inner wall of the lower mold base 21, and plays the role of docking the front end mesh plate 34, thereby achieving the effect of assisting the positioning of the inner movable module 3 in the tube shell shaping module 2.
[0024] The gap filling and finishing module 4 is composed of a profiling supplement shell 41, a profiling upper plate 42, a profiling lower plate 43 and a finishing shell 44. The profiling upper plate 42 and the profiling lower plate 43 are positioned one above the other on the inner side of the profiling supplement shell 41, and the profiling upper plate 42 and the profiling lower plate 43 are both slidably connected to the inner wall of the profiling supplement shell 41. The profiling upper plate 42 and the profiling lower plate 43 are squeezed from above by two upper die seats 22, and the lower die seat 21 supports the profiling lower plate 43 and the profiling upper plate 42 from below, so as to play the role of positioning the profiling upper plate 42 and the profiling lower plate 43 at the designated position of the rear end of the tube shell shaping module 2. The profiling upper plate 42 and the profiling lower plate 43 are positioned at the designated position of the rear end of the tube shell shaping module 2, so that the profiling supplement shell 41 can be guided by the profiling upper plate 42 and the profiling lower plate 43 to move horizontally on the outer side of the profiling upper plate 42 and the profiling lower plate 43. The profiling supplement shell 41 and the trimming shell 44 are both connected to the inner side of the tube shell shaping module 2, so that the profiling supplement shell 41 and the trimming shell 44 can stably move horizontally inside the tube shell shaping module 2, effectively changing the positions of the profiling supplement shell 41 and the trimming shell 44, and the trimming shell 44 can be separated from the profiling supplement shell 41 from the front end of the profiling supplement shell 41, so that the trimming shell 44 and the profiling supplement shell 41 can independently perform position adjustment operations. The profiling supplement shell 41 is aligned to the inside of the injection molding cavity, and can make up for the extra space between the trimming shell 44 and the tube shell shaping module 2, so as to ensure that the subsequent injection molding of the polyurethane tube shell will not have a thickened surface. The size of the profiling supplement shell 41 and the trimming shell 44 is larger than the front mesh plate 34, so as to ensure that the front mesh plate 34 can smoothly enter the profiling supplement shell 41 and the trimming shell 44, and move horizontally inside the profiling supplement shell 41 and the trimming shell 44, so as to effectively adjust the position of the inner movable module 3 to process the injection molding material from the inside of the injection molding material. The arc mesh partition 31 and the arc sealing plate 33 are slidably connected between the profiling upper plate 42 and the profiling lower plate 43, and the side of the docking cross plate 32 away from the arc mesh partition 31 is slidably connected to the inner wall of the profiling supplement shell 41, and the lower end of the arc mesh partition 31 is close to the concave part of the inner side of the profiling supplement shell 41, so that the inner movable module 3 can always keep the designated route movement inside the tube shell shaping module 2 under the guidance of the gap filling trimming module 4, so as to stably and effectively adjust the position of the inner movable module 3, and stably process the injection molding material in the injection molding cavity.
[0025] The inner movable module 3 and the gap filling and trimming module 4 can be directly placed into the lower mold base 21 from the top of the lower mold base 21 after being spliced. The two contoured parts on the upper mold base 22, one on the left and one on the right, rotate and close the mold to the top of the lower mold base 21, effectively fixing the inner movable module 3 and the gap filling and trimming module 4 from the outside. The arc-shaped sealing plate 33 and the arc-shaped mesh partition plate 31 separate the internal space of the injection molding cavity to separate the injection plastic, so that the injection plastic is temporarily stored in the upper half of the injection molding cavity. The arc-shaped sealing plate 33 and the front mesh plate 34 move outward in turn to allow the injection plastic to impact inside the injection molding cavity, mix the injection plastic and deal with bubbles from inside the injection plastic, which can effectively perform pre-treatment for cooling and curing of the injection plastic. After the polyurethane tube shell is formed, the contoured supplement shell 41 moves horizontally outward to make way for the trimming shell 44. Both ends of the trimming shell 44 have inclined scraping parts. The trimming shell 44 moves horizontally on the surface of the polyurethane tube shell to trim the surface of the polyurethane tube shell passing by. It can effectively trim the surface bumps and edge burrs of the polyurethane tube shell directly after manufacturing and forming, improve the injection molding production effect and efficiency of the polyurethane tube shell, improve the production quality of the polyurethane tube shell, and ensure the subsequent stable splicing and use of the polyurethane tube shell.
[0026] The front end of the arc-shaped mesh partition plate 31 is fixedly connected to two side plates 35, and the side plates 35 are fixedly connected to guide blocks 36. The outer wall of the lower mold base 21 is provided with two guide grooves 211 corresponding to the guide blocks 36, and the guide blocks 36 are connected in the corresponding guide grooves 211. The guide grooves 211 constrain the positioning of the corresponding guide blocks 36, so that the inner movable module 3 and the gap filling and trimming module 4 cooperate, and after being placed into the injection cavity of the tube shell shaping module 2 from the top of the opened tube shell shaping module 2, the two guide blocks 36 and the two side plates 35 cooperate to pull the inner movable module 3 and the gap filling and trimming module 4 from two directions at the same time through the guide blocks 36 clamped to the inside of the guide grooves 211, which can constrain the inner movable module 3 and the gap filling and trimming module 4 as a whole inside the tube shell shaping module 2, and play the role of positioning and reinforcing the inner movable module 3 and the gap filling and trimming module 4. At the same time, the guide blocks 36 can move in the guide grooves 211 close to the groove wall of the guide grooves 211 to ensure the stability of the inner movable module 3 when it moves horizontally.
[0027] Two operating blocks 441 are fixedly connected to the top of the trimming shell 44. The operating blocks 441 serve as force-applying members for the operator to operate to complete the independent movement of the trimming shell 44. A clearance groove 221 corresponding to the operating block 441 is provided on the upper mold base 22. The operating block 441 is snap-connected inside the corresponding clearance groove 221, so that the contoured part of the upper mold base 22 can be offset from the operating block 441 for rotation.
[0028] The working principle of the present invention is as follows: two upper mold bases 22 are molded on the top of the lower mold base 21, one on the left and one on the right, the profiling part on the upper mold base 22 rotates outward to expose the inner cavity of the lower mold base 21, and the inner movable module 3 and the gap filling and trimming module 4 are directly placed in the lower mold base 21 from the top of the lower mold base 21 after splicing, the profiling parts on the two upper mold bases 22 are rotated and molded to the top of the lower mold base 21, and the inner movable module 3 and the gap filling and trimming module 4 are tightly positioned from the outside, and the injection plastic is injected into the injection molding cavity of the polyurethane shell through the injection molding tube 1, and the arc-shaped sealing plate 33 is connected with the arc-shaped sealing plate 33. The mesh partition 31 divides the internal space of the injection molding cavity to separate the injection plastic, allowing the injection plastic to temporarily store in the upper half of the injection molding cavity. The arc-shaped sealing plate 33 and the front mesh plate 34 move outward in turn to allow the injection plastic to impact inside the injection molding cavity, mix the injection plastic and remove bubbles from inside the injection plastic. The injection plastic is formed inside the injection molding cavity. After the polyurethane tube shell is formed, the contour-matching shell 41 moves horizontally outward to make room for the trimming shell 44. The trimming shell 44 moves horizontally on the surface of the polyurethane tube shell to trim the surface of the polyurethane tube shell that passes by. After the trimming is completed, the polyurethane tube shell is taken out from the lower mold base 21.
[0029] The above shows and describes the basic principles and main features of the present invention and the advantages of the present invention. It should be understood by those skilled in the art that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention to be protected. The scope of protection of the present invention is defined by the attached claims and their equivalents.
Claims
1. A production device for polyurethane products, comprising an injection molding tube (1), characterized in that: A tube shell shaping module (2) is provided below the injection molding tube (1), the tube shell shaping module (2) comprising a lower mold base (21) and an upper mold base (22), the number of the upper mold bases (22) being two, the two upper mold bases (22) being molded together on the top of the lower mold base (21) one on the left and one on the right to form an injection molding cavity matching the polyurethane tube shell, the injection molding tube (1) being connected to the tube shell shaping module (2) to injection mold the polyurethane tube shell; An inner movable module (3) is provided inside the tube shell shaping module (2), and the inner movable module (3) comprises an arc-shaped mesh partition plate (31), a docking transverse plate (32), an arc-shaped sealing plate (33) and a front mesh plate (34); the front mesh plate (34) is positioned at the front end of the arc-shaped mesh partition plate (31) through the docking transverse plate (32); the arc-shaped sealing plate (33) is movable on the inner side wall of the arc-shaped mesh partition plate (31); the aligned arc-shaped sealing plate (33) and the arc-shaped mesh partition plate (31) separate the inner space of the injection molding cavity to separate the injection molding material; the arc-shaped sealing plate (33) and the front mesh plate (34) move outward in sequence to allow the injection molding material to impact inside the injection molding cavity; the front mesh plate (34) moves inside the injection molding material to capture and intercept bubbles; the captured bubbles are moved out of the injection molding material along with the front mesh plate (34) to process the bubbles existing in the injection molding material; A gap filling and trimming module (4) is provided inside the tube shell shaping module (2). The gap filling and trimming module (4) comprises a contouring and supplementing shell (41), a contouring upper plate (42), a contouring lower plate (43) and a trimming shell (44). The contouring upper plate (42) and the contouring lower plate (43) are positioned one above the other inside the contouring and supplementing shell (41). The contouring upper plate (42) and the contouring lower plate (43) guide the inner movable module (3) to move horizontally as a whole inside the tube shell shaping module (2). The trimming shell (44) moves at the front end of the contouring and supplementing shell (41) to trim the surface of the polyurethane tube shell passing through.
2. The production equipment of a polyurethane material product according to claim 1, characterized in that: The contoured portion of the upper die seat (22) rotates on the top of the lower die seat (21), the free ends of the contoured portions of the two upper die seats (22) are snap-connected, and the injection tube (1) is plugged into the contoured portions of the two upper die seats (22).
3. The production equipment of a polyurethane material product according to claim 1, characterized in that: The docking transverse plate (32) is fixedly connected to the upper end of the arc-shaped mesh partition plate (31), and the front mesh plate (34) is fixedly connected to the front end of the docking transverse plate (32).
4. The production equipment of a polyurethane material product according to claim 1, characterized in that: The inner wall of the lower die base (21) is provided with a docking groove (212) corresponding to the front end mesh plate (34); the front end mesh plate (34) is snap-connected inside the docking groove (212); and the front end mesh plate (34) is flush with the inner wall of the lower die base (21).
5. The production equipment of a polyurethane material product according to claim 1, characterized in that: The profiling upper plate (42) and the profiling lower plate (43) are both slidably connected to the inner wall of the profiling supplementary shell (41), the profiling supplementary shell (41) and the trimming shell (44) are both snap-connected to the inner side of the tube shell shaping module (2), and the sizes of the profiling supplementary shell (41) and the trimming shell (44) are larger than the front end mesh plate (34).
6. The production equipment of a polyurethane material product according to claim 1, characterized in that: The arc-shaped mesh partition (31) and the arc-shaped sealing plate (33) are slidably connected between the contoured upper plate (42) and the contoured lower plate (43), and the side of the docking transverse plate (32) away from the arc-shaped mesh partition (31) is slidably connected to the inner wall of the contoured supplementary shell (41).
7. The production equipment of a polyurethane material product according to claim 1, characterized in that: The front end of the arc-shaped mesh partition plate (31) is fixedly connected to two side plates (35), the side plates (35) are fixedly connected to guide blocks (36), the outer wall of the lower die base (21) is provided with two guide grooves (211) corresponding to the guide blocks (36), and the guide blocks (36) are snap-fitted and connected inside the corresponding guide grooves (211).
8. The production equipment of a polyurethane material product according to claim 1, characterized in that: Two operating blocks (441) are fixedly connected to the top of the trimming shell (44), and a clearance groove (221) corresponding to the operating blocks (441) is provided on the upper die seat (22), and the operating blocks (441) are snap-fitted and connected inside the corresponding clearance groove (221).
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