Double-color high-pressure type injection mold

Abstract

The invention belongs to the technical field of double-color injection molds, and particularly relates to a double-color high-pressure type injection mold. Comprising a supporting structure, a first static mold structure is arranged on one side of the interior of the supporting structure, a second static mold structure is arranged on one side of the first static mold structure, and two movable mold structures are symmetrically arranged on the other side of the interior of the supporting structure; the supporting structure comprises a fixing plate, and one side of the fixing plate is rotationally connected with a rotating disc. The first static mold structure comprises a first static mold plate; the second static mold structure comprises a second static mold plate; the movable mold structure comprises a movable mold block, a movable mold core is arranged in the movable mold block, two forming grooves are symmetrically formed in the movable mold core, and adjusting assemblies are arranged in the forming grooves; the double-color high-pressure type injection mold is high in injection molding efficiency, good in injection molding effect, easy to operate, safe, stable, high in adaptability and high in stability, effectively improves the batch production efficiency, and effectively meets the actual production and machining requirements.

Description

Technical Field

[0001] The invention belongs to the technical field of double-color injection molds, in particular to a double-color high-pressure injection mold. Background Art

[0002] A two-color mold is a mold in which two plastic materials are injected on the same injection molding machine and molded in two steps, but the finished product is only ejected once. Generally, this molding process is also called double-material injection molding. It is usually completed by a set of molds and requires a special two-color injection molding machine. That is, the first raw material plastic is injected into the small hole of the mold using the injection equipment. When it is formed, it becomes the first plastic. Then the mold is rotated 180° and the second raw material plastic is injected using the same injection equipment. After the second plastic is formed, the final encapsulation work is carried out to complete a basic two-color injection molding work.

[0003] Chinese invention patent CN111452291B relates to a two-color injection mold, which includes a front mold and a rear mold arranged opposite to each other, and a sliding mechanism is arranged at the abutment position of the front mold and the rear mold. The sliding mechanism is arranged on two opposite sides of the two-color injection mold, and the sliding mechanism includes a first sliding assembly and a second sliding assembly arranged at intervals. The first sliding assembly and the second sliding assembly both include a locking block and an elastic member; the two-color injection mold has low injection efficiency and poor injection effect.

[0004] Chinese invention patent CN112829207B discloses a two-color injection mold, including a first slider, a second slider, a first inclined guide column, and a second inclined guide column, and also includes a first oil cylinder arranged on the outside of the first slider, and a second oil cylinder arranged on the outside of the second slider, and a first guide seat and a second guide seat are respectively provided on the side of the first slider close to the first oil cylinder and the side of the second slider close to the second oil cylinder; the two-color injection mold is difficult to operate and has low operating accuracy.

[0005] When the above two-color high-pressure injection mold is performing injection molding, the molten hard material or molten soft material for injection molding cannot be fully mixed and stirred at the movable mold core, and is easily accumulated on one side of the movable mold core, thereby reducing the subsequent injection molding quality.

[0006] When the molten hard material injection is completed and before the subsequent soft material injection is started, the finished product will rotate with the rotation of the movable mold core. During the rotation, the finished product will be affected by the centrifugal force and cause the finished product to shift, thereby reducing the accuracy and stability of the subsequent soft material injection.

[0007] At the same time, after the molten hard material is injected and the mold is opened, the finished product will shrink due to the principle of thermal expansion and contraction due to the decrease in external ambient temperature, which will easily affect the injection volume of the subsequent molten soft material and ultimately affect the quality of the finished product.

[0008] After the soft material injection molding is completed, injection impurities are likely to remain on the outer surface of the movable mold core. If the impurities cannot be quickly cleaned, the subsequent injection molding quality will be affected. Summary of the invention

[0009] In view of the above problems, the present invention provides a two-color high-pressure injection mold.

[0010] To achieve the above object, the present invention provides the following technical solution: a two-color high-pressure injection mold, comprising a support structure, a first static mold structure is provided on one side of the support structure, a second static mold structure is provided on one side of the first static mold structure, and two movable mold structures are symmetrically provided on the other side of the support structure;

[0011] The support structure comprises a fixed plate, one side of which is rotatably connected to a rotating disk;

[0012] The first static mold structure includes a first static mold plate;

[0013] The second static mold structure includes a second static mold plate;

[0014] The movable mold structure comprises a movable mold block, a movable mold core is arranged inside the movable mold block, two molding grooves are symmetrically arranged inside the movable mold core, and an adjustment component is arranged inside the molding groove;

[0015] The adjustment component includes two core blocks, the peripheral side surfaces of the core blocks are provided with annular grooves, and the internal sealing sliding connection of the annular grooves is provided with multiple ejection blocks; one side of the core block is evenly provided with multiple side grooves, and the internal sealing sliding connection of the side grooves is provided with a magnetic sealing block, and the other end of the magnetic sealing block is provided with a blocking column through a connecting rod, and the other end of the blocking column is provided with a pressure sensor.

[0016] The change in pressure value detected by the pressure sensor corresponds to the uniformity and stirring during the injection of hard materials, ensuring the injection quality and efficiency. At the same time, when the rotation occurs after the injection is completed, multiple ejector blocks squeeze and fix the inner wall of the inner shell to ensure the stability and accuracy of the rotation of the inner shell. At the same time, when the inner shell shrinks under the principle of its own thermal expansion and contraction, the ejector blocks and the blocking columns perform negative pressure adsorption on the inner shell, thereby ensuring the accuracy of the subsequent injection amount of soft materials. After the injection is completed, clean gas is sprayed out from the side groove and the ring groove, thereby realizing wind cleaning of the outer surface of the core block and the inner wall of the molding groove, improving the cleaning effect, and avoiding affecting the subsequent injection molding.

[0017] Furthermore, a plurality of limit rods are evenly arranged inside the fixed plate, a movable plate is slidably connected to one side of the fixed plate, a center hole is opened at the axis of the movable plate, the inner wall of the center hole is sealingly and rotatably connected to the outer surface of the rotating disk, a plurality of docking holes are evenly arranged inside the movable plate, the inner wall of the docking hole is sealingly and slidably connected to the outer surface of the limit rod, a plurality of injection holes are symmetrically arranged inside the fixed plate, and a plurality of splicing holes are evenly arranged inside the fixed plate and the movable plate.

[0018] Furthermore, the first static mold structure also includes a first side plate, a first connecting plate is provided on the other side of the first side plate, a first injection tube is provided inside the first side plate, an input end of the first injection tube is connected to the injection hole, one side of the first side plate is fixedly connected to the side wall of the fixed plate, a plurality of first plug rods are evenly provided on one side of the first side plate, a plurality of first plug holes are evenly provided inside the first connecting plate, and an outer surface of the first plug rod matches an inner wall of the first plug hole.

[0019] Furthermore, a first static mold groove is provided inside the first connecting plate, the inner wall of the first static mold groove is clamped with the outer surface of the first static mold plate, a first high-pressure nozzle is provided inside the first connecting plate, the input end of the first high-pressure nozzle is connected with the first injection tube, a first guide tube is provided inside the first static mold plate, the output end of the first high-pressure nozzle is connected with the input end of the first guide tube, and a first heat flow tube is provided inside the first static mold plate.

[0020] Furthermore, the second static mold structure also includes a second side plate, a second injection tube is provided inside the second side plate, an input end of the second injection tube is connected to the injection hole, one side of the second side plate is fixedly connected to the side wall of the fixed plate, a second connecting plate is provided on the other side of the second side plate, a plurality of second plug rods are evenly provided on one side of the second side plate, a plurality of second plug holes are evenly provided inside the second connecting plate, and an outer surface of the second plug rod matches an inner wall of the second plug hole.

[0021] Furthermore, a second static mold groove is provided inside the second connecting plate, the inner wall of the second static mold groove is clamped with the outer surface of the second static mold plate, a second high-pressure nozzle is provided inside the second connecting plate, the input end of the second high-pressure nozzle is connected with the second injection molding tube, a second guide tube is provided inside the second static mold plate, the output end of the second high-pressure nozzle is connected with the input end of the second guide tube, and a second heat flow tube is provided inside the second static mold plate.

[0022] The cam is provided with a plurality of jacks, and the cam is provided with a plurality of stoppers, the stoppers are provided with a plurality of guide rails, and the guide rails are provided with a plurality of guide rails respectively.

[0023] Furthermore, the side wall of the ejector block matches the inner wall of the forming groove, the adjacent ejector blocks are sealingly and slidably connected and match the side wall of the core block, a plurality of communicating holes are evenly opened on one side of the annular groove, the other end of the communicating hole is connected with the side groove, the inside of the communicating hole is sealingly and slidably connected with a vertical rod, the other end of the vertical rod is fixedly connected to the side wall of the ejector block, the inner wall of the annular groove is evenly provided with a plurality of connecting springs, the other side of the connecting spring is fixedly connected to the side wall of the ejector block, the connecting spring is located on the outer surface of the vertical rod, a plurality of side row holes are evenly opened on the peripheral side surface of the connecting hole, the other end of the side row hole passes through the core block and is connected with the upper side wall of the annular groove.

[0024] Furthermore, one side of the core block is fixedly connected to the side wall of the molding groove, the other side of the core block is provided with a protruding block, the inner wall of the side groove is provided with an electromagnetic block, the other end of the electromagnetic block is provided with a reset spring, the other end of the reset spring is fixedly connected to the side wall of the magnetic sealing block, the magnetic properties of the facing end faces of the electromagnetic block and the magnetic sealing block are the same, a sealing ring is provided at the end of the inner wall of the side groove, the inner wall of the sealing ring is sealingly and slidingly connected to the outer surface of the blocking column, the diameter of the blocking column is greater than the diameter of the connecting rod, the side wall of the blocking column is provided with an inner groove, the inner groove matches the outer surface of the pressure sensor, and the pressure sensor is used to detect the pressure value of the end of the blocking column.

[0025] Furthermore, two finished structures are symmetrically arranged inside the movable mold structure, and the finished structure includes an inner shell, the peripheral side surfaces of the inner shell respectively match the side walls of the first static mold plate, the molding groove and the adjustment component, an inner hole is arranged inside the inner shell, and the inner wall of the inner hole matches the outer surface of the protruding block, and an outer shell is arranged on one side of the inner shell, and the peripheral side surfaces of the outer shell respectively match the side walls of the second static mold plate, the molding groove and the adjustment component.

[0026] Compared with the prior art, the present invention has the following beneficial effects:

[0027] 1. The present invention sets a support structure, a first static mold structure, a second static mold structure and a dynamic mold structure, and the like are coordinated with each other. The two-color high-pressure injection mold has high injection efficiency, good injection effect, simple operation, safety and stability, and effectively improves batch production efficiency. It also has strong adaptability and high stability, and effectively meets actual production and processing needs.

[0028] 2. The present invention sets a blocking column and an ejection block and other components to cooperate with each other. The two-color high-pressure injection mold can achieve high-speed vibration of molten hard material or molten soft material during the injection molding process, and can also evenly distribute the molten hard material or molten soft material, thereby improving the injection molding quality, making it more uniform, and having a better mixing effect.

[0029] 3. The present invention arranges the side grooves and the side holes and other components to cooperate with each other. The two-color high-pressure injection mold can also use negative pressure to adsorb the side wall of the finished product when the finished product is rotated, thereby ensuring the safety and stability of the rotation, improving the accuracy of subsequent injection molding, and having stronger docking and higher accuracy.

[0030] 4. The present invention arranges the electromagnetic block, the magnetic sealing block and other components to cooperate with each other. After the injection molding is completed, the double-color high-pressure injection mold can also use wind power to efficiently clean the outer surface of the core block, thereby improving the cleanliness and flatness of the injection mold and effectively avoiding the impact on subsequent injection molding. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention;

[0032] Figure 2 It is a schematic diagram of the three-dimensional structure from another viewing angle of the present invention;

[0033] Figure 3 It is a schematic diagram of the explosion three-dimensional structure of the present invention;

[0034] Figure 4 It is a schematic diagram of the exploded three-dimensional structure of the first static mold structure of the present invention;

[0035] Figure 5 It is a schematic diagram of the exploded three-dimensional structure of the second static mold structure of the present invention;

[0036] Figure 6 It is a schematic diagram of the exploded three-dimensional structure of the movable mold structure of the present invention;

[0037] Figure 7 It is a schematic diagram of the three-dimensional structure of the adjustment component of the present invention;

[0038] Figure 8It is a schematic diagram of the internal three-dimensional structure of the adjustment component of the present invention from the right perspective;

[0039] Fig. 9 for Figure 8 The enlarged schematic diagram at A in the middle;

[0040] Fig.10 for Figure 8 The enlarged schematic diagram of point B in the middle;

[0041] Fig.11 It is a schematic diagram of a partially exploded three-dimensional structure of the regulating component of the present invention;

[0042] Fig.12 It is a schematic diagram of the exploded three-dimensional structure of the finished product structure of the present invention.

[0043] In the figure: 1. Support structure; 101. Fixed plate; 102. Limit rod; 103. Moving plate; 104. Center hole; 105. Rotating plate; 106. Docking hole; 107. Injection hole; 108. Splicing hole; 2. First static mold structure; 201. First side plate; 202. First injection tube; 203. First connecting plate; 204. First high-pressure nozzle; 205. First static mold plate; 206. First guide tube; 207. First heat flow tube; 208, first plug rod; 209, first static mold groove; 210, first plug hole; 3, second static mold structure; 301, second side plate; 302, second injection tube; 303, second connecting plate; 304, second high-pressure nozzle; 305, second static mold plate; 306, second guide tube; 307, second heat flow tube; 308, second plug rod; 309, second static mold groove; 310, second plug hole; 4, dynamic mold structure; 401, dynamic mold block; 4 02, moving mold core; 403, molding groove; 404, adjustment assembly; 4041, core block; 4042, ring groove; 4043, ejector block; 4044, connecting spring; 4045, vertical rod; 4046, connecting hole; 4047, side row hole; 4048, side groove; 4049, electromagnetic block; 40410, reset spring; 40411, magnetic sealing block; 40412, connecting rod; 40413, blocking column; 40414, inner groove ; 40415, pressure sensor; 40416, sealing ring; 40417, raised block; 405, mounting plate; 406, ejector plate; 407, ejector pin; 408, cross bar; 409, sliding hole; 420, rotating screw; 421, threaded ring; 422, jack; 423, follower plate; 424, limit block; 425, movable mold groove; 426, ejector hole; 5, finished product structure; 501, inner shell; 502, inner hole; 503, outer shell. DETAILED DESCRIPTION

[0044] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0045] Reference Figures 1 to 12 A two-color high-pressure injection mold comprises a support structure 1, a first static mold structure 2 is arranged on one side of the support structure 1, a second static mold structure 3 is arranged on one side of the first static mold structure 2, the first static mold structure 2 and the second static mold structure 3 are different in structure, two dynamic mold structures 4 are symmetrically arranged on the other side of the support structure 1, and the two dynamic mold structures 4 are the same, so in actual use, the first static mold structure 2 sprays out molten hard material, and the molten hard material usually refers to a plastic material with higher hardness and higher melting point. These materials are usually used as the first shot material in two-color injection molding, that is, they are first injected into the mold to form the basic structure of the finished product, The molten hard material can provide sufficient strength and stability, and then the support structure 1 rotates and drives the movable mold structure 4 to rotate 180 degrees, and the second static mold structure 3 sprays out soft material, and soft material refers to plastic materials with lower hardness and softer touch. These materials are used as the second shot material in two-color injection molding, that is, injected on top of the molten hard material to form the surface layer or specific part of the finished product to provide a soft touch or increase the comfort of the finished product. After completion, the material is unloaded to complete the processing, and the above process is repeated continuously and with the help of the two movable mold structures 4, they are synchronously connected with the first static mold structure 2 and the second static mold structure 3 for docking injection molding, thereby improving the injection molding efficiency and injection molding effect.

[0046] The support structure 1 includes a fixed plate 101, the position of the fixed plate 101 does not change, one side of the fixed plate 101 is rotatably connected to a rotating disk 105, and the rotation of the rotating disk 105 synchronously drives the movable mold structure 4 to rotate, thereby realizing two-color high-pressure injection molding, a plurality of limit rods 102 are evenly arranged inside the fixed plate 101, a movable plate 103 is slidably connected to one side of the fixed plate 101, and a plurality of docking holes 106 are evenly arranged inside the movable plate 103, and the inner wall of the docking hole 106 is sealed and slidably connected to the outer surface of the limit rod 102, and the movable plate 103 is slidably connected to the outer surface of the limit rod 102 by means of the docking hole 106. The movable plate 103 is provided with a center hole 104 at its axis, and the inner wall of the center hole 104 is sealingly and rotatably connected to the outer surface of the rotating disk 105. The rotating disk 105 is rotated under the action of the inner limit of the center hole 104 and drives the two movable mold structures 4 to rotate. The fixed plate 101 is symmetrically provided with injection holes 107, and the injection holes 107 are used for feeding. The fixed plate 101 and the movable plate 103 are evenly provided with a plurality of splicing holes 108. The setting of the splicing holes 108 improves the installation stability of the fixed plate 101 and the movable plate 103.

[0047] The first static mold structure 2 includes a first static mold plate 205, and the first static mold plate 205 performs the first injection molding. The first static mold structure 2 also includes a first side plate 201. One side of the first side plate 201 is fixedly connected to the side wall of the fixed plate 101, so the position of the first side plate 201 is fixed. The other side of the first side plate 201 is provided with a first connecting plate 203. The interior of the first side plate 201 is provided with a first injection molding tube 202. The input end of the first injection molding tube 202 is connected to the injection hole 107. Molten hard material is passed into the first injection molding tube 202. One side of the first side plate 201 is evenly provided with a plurality of first plug rods 208. The interior of the first connecting plate 203 is evenly provided with a plurality of first plug holes 210. The outer surface of the first plug rod 208 matches the inner wall of the first plug hole 210. The setting of the first plug rod 208 improves the subsequent plug-in and fixing effect of the first static mold structure 2 and the dynamic mold structure 4.

[0048] A first static mold groove 209 is provided inside the first connecting plate 203, and the inner wall of the first static mold groove 209 is mutually clamped with the outer surface of the first static mold plate 205. The setting of the first static mold groove 209 improves the installation stability of the first static mold plate 205. A first high-pressure nozzle 204 is provided inside the first connecting plate 203, and the input end of the first high-pressure nozzle 204 is connected with the first injection molding tube 202. The molten hard material inside the first injection molding tube 202 enters the first high-pressure nozzle 204 for high-pressure injection. A first guide pipe 206 is provided inside the first static mold plate 205, and the output end of the first high-pressure nozzle 204 is connected with the input end of the first guide pipe 206. Then, the molten hard material inside the first high-pressure nozzle 204 is ejected along the first guide pipe 206 and forms a finished product inside the dynamic mold structure 4. A first heat flow pipe 207 is provided inside the first static mold plate 205, and heat medium flows inside the first heat flow pipe 207. The setting of the first heat flow pipe 207 ensures the stability of the internal temperature of the first static mold plate 205.

[0049] The second static mold structure 3 includes a second static mold plate 305, and the second static mold plate 305 is used for second color injection molding. The second static mold structure 3 also includes a second side plate 301, and one side of the second side plate 301 is fixedly connected to the side wall of the fixed plate 101. Similarly, the second side plate 301 is fixed in position, and a second injection molding tube 302 is arranged inside the second side plate 301. The input end of the second injection molding tube 302 is connected to another injection hole 107, and the soft material inside the injection hole 107 enters the second injection molding tube 302 for circulation. A second connecting plate 303 is arranged on the other side of the second side plate 301, and a plurality of second plug rods 308 are evenly arranged on one side of the second side plate 301. A plurality of second plug holes 310 are evenly arranged inside the second connecting plate 303. The outer surface of the second plug rod 308 matches the inner wall of the second plug hole 310. The second plug rod 308 not only fixes the second connecting plate 303, but also realizes the subsequent precise plug-in positioning with the movable mold structure 4.

[0050] A second static mold groove 309 is provided inside the second connecting plate 303, and the inner wall of the second static mold groove 309 is mutually clamped with the outer surface of the second static mold plate 305. The setting of the second static mold groove 309 improves the safety and stability of the second static mold plate 305. A second high-pressure nozzle 304 is provided inside the second connecting plate 303, and the input end of the second high-pressure nozzle 304 is connected with the second injection molding tube 302, and the soft material inside the second injection molding tube 302 enters the second high-pressure nozzle 304. A second guide pipe 306 is provided inside the second static mold plate 305, and the output end of the second high-pressure nozzle 304 is connected with the input end of the second guide pipe 306, and the soft material inside the second high-pressure nozzle 304 enters the second guide pipe 306 for circulation. A second heat flow pipe 307 is provided inside the second static mold plate 305, and heat medium also flows inside the second heat flow pipe 307 to ensure the stability of the internal temperature of the second static mold plate 305.

[0051] The movable mold structure 4 includes a movable module 401, and the position of the movable module 401 will rotate synchronously with the rotation of the rotating disk 105. A movable mold core 402 is provided inside the movable module 401, and two molding grooves 403 are symmetrically provided inside the movable mold core 402. An adjustment component 404 is provided inside the molding groove 403. The adjustment component 404 and the molding groove 403 are combined to form the required injection space, and cooperate with the first static mold plate 205 or the second static mold plate 305 to form the required finished product. A movable mold groove 425 is provided on one side of the movable module 401. The movable mold groove 425 and the movable mold core 402 are clamped and fixed to each other. The setting of the movable mold groove 425 further improves the clamping and fixing stability of the movable mold core 402.

[0052] The interior of the moving module 401 is evenly provided with a plurality of sockets 422, and the sockets 422 match the first plug rod 208 and the second plug rod 308, so as to further improve the plug-in fixing accuracy and stability. The moving module 401 is symmetrically provided with two limit blocks 424 on one side close to the rotating disk 105, and a follower plate 423 is provided on the other side of the limit block 424, and the other side of the follower plate 423 is fixedly connected to the side wall of the rotating disk 105. When the rotating disk 105 rotates, the follower plate 423 is driven to rotate, and the follower plate 423 synchronously drives the moving module 401 to rotate through the limit block 424, thereby realizing the change of the injection molding position of the moving module 401, and a mounting plate 405 is provided on one side of the follower plate 423 and located between the two limit blocks 424, and a top plate 406 is slidably connected to the other side of the mounting plate 405, and the top plate 406 slides between the two limit blocks 424 and realizes unloading, and a plurality of ejector pins 407 are evenly provided on the other end of the top plate 406, and the interior of the moving module 401 is evenly provided with A plurality of ejection holes 426 are provided, and the ejector pins 407 are sealed and slidably connected with the ejection holes 426. When the ejector plate 406 moves, the plurality of ejector pins 407 are synchronously driven to move. The ejector pins 407 move along the ejection holes 426 and eject the finished products formed by injection molding. A rotating screw 420 is provided inside the mounting plate 405, and a threaded ring 421 is provided on the outer surface of the rotating screw 420. The interior of the ejector plate 406 is rotatably connected with the outer surface of the threaded ring 421 through a bearing. The rotating screw 420 rotates and drives the ejector plate 406 to move between the two limit blocks 424 through the threaded connection with the threaded ring 421. A plurality of cross bars 408 are evenly provided on one side of the moving module 401, and the other end of the cross bar 408 is fixedly connected to the side wall of the follower plate 423. A plurality of sliding holes 409 are evenly provided inside the mounting plate 405 and the ejector plate 406. The cross bars 408 are sealed and slidably connected with the sliding holes 409. The setting of the sliding holes 409 further improves the stability and limiting property of the movement of the ejector plate 406.

[0053] The adjusting component 404 includes two core blocks 4041. The arrangement of the two core blocks 4041 realizes synchronous injection molding of two finished products, thereby improving the injection molding efficiency and injection molding quality. An annular groove 4042 is provided on the peripheral side of the core block 4041. The annular groove 4042 matches the shape and size of the core block 4041. The inner sealing and sliding connection of the annular groove 4042 is provided with a plurality of ejector blocks 4043. The side walls of the ejector blocks 4043 match the inner walls of the molding groove 403. Therefore, the ejector blocks 4043 move along the molding groove 403. Adjacent ejector blocks 4043 are sealingly and slidingly connected and match the side walls of the core block 4041. The ejector blocks 4043 can seal the molding groove 403, and the positions of the plurality of ejector blocks 4043 match those of the core block 4041, thereby effectively avoiding the influence of the plurality of ejector blocks 4043 on the quality of the finished products when they move.

[0054] A side groove 4048 is provided on one side of the core block 4041, and the inside of the side groove 4048 is mainly used for the circulation of gas. A plurality of connecting holes 4046 are evenly provided on one side of the annular groove 4042, and the other end of the connecting hole 4046 is connected to the side groove 4048, so that the gas inside the connecting hole 4046 can circulate with the inside of the side groove 4048, and the inside of the connecting hole 4046 is sealed and slidably connected with a vertical rod 4045, and the outer surface of the vertical rod 4045 and the inner wall of the connecting hole 4046 are sealed with each other, and the other end of the vertical rod 4045 is fixedly connected to the side wall of the ejection block 4043, so when the vertical rod 4045 moves up and down inside the connecting hole 4046, the vertical rod 4045 synchronously drives the ejection block 4043 to move up and down inside the annular groove 4042, and the annular groove The inner wall of 4042 is evenly provided with a plurality of connecting springs 4044, the other side of which is fixedly connected to the side wall of the ejection block 4043, the connecting spring 4044 is located on the outer surface of the vertical rod 4045, the setting of the connecting spring 4044 further improves the elastic reset performance of the ejection block 4043, the surrounding side surface of the connecting hole 4046 is evenly provided with a plurality of side row holes 4047, the other end of the side row holes 4047 passes through the core block 4041 and is connected to the upper side wall of the annular groove 4042, when the ejection block 4043 is freed from the blockage of the side row holes 4047, the side row holes 4047 connect the connecting hole 4046 and the annular groove 4042, thereby achieving the clamping and fixing of the finished product and the wind cleaning effect on the outer surface of the core block 4041.

[0055] The internal sealing sliding connection of the side groove 4048 is provided with a magnetic sealing block 40411, and the magnetic sealing block 40411 fits with the inner wall of the side groove 4048. When the magnetic sealing block 40411 moves inside the side groove 4048, the internal air pressure value of the side groove 4048 is changed synchronously. The other end of the magnetic sealing block 40411 is provided with a blocking column 40413 through a connecting rod 40412. The blocking column 40413 can clamp and fix the finished product and adjust the position of the finished product, and at the same time can achieve the cleaning effect on the outer surface of the core block 4041. The other end of the blocking column 40413 is provided with a pressure sensor 40415, and the pressure sensor 40415 is used to detect the pressure value at the end of the blocking column 40413.

[0056] One side of the core block 4041 is fixedly connected to the side wall of the forming groove 403, and the other side of the core block 4041 is provided with a protruding block 40417. The setting of the protruding block 40417 realizes the hollowness inside the finished product. The inner wall of the side groove 4048 is provided with an electromagnetic block 4049, and the other end of the electromagnetic block 4049 is provided with a reset spring 40410. The other end of the reset spring 40410 is fixedly connected to the side wall of the magnetic sealing block 40411. The setting of the reset spring 40410 realizes the elastic reset performance of the magnetic sealing block 40411. The magnetism of the end faces facing the electromagnetic block 4049 and the magnetic sealing block 40411 is the same. When the current of the electromagnetic block 4049 increases, the magnetic repulsion of the electromagnetic block 4049 on the magnetic sealing block 40411 increases, and the magnetic sealing block 40411 slides in a sealed manner inside the side groove 4048. The inner wall of the side groove 4048 A sealing ring 40416 is provided at the end, and the inner wall of the sealing ring 40416 is sealingly and slidably connected to the outer surface of the blocking column 40413. The setting of the sealing ring 40416 can ensure the sealing between the blocking column 40413 and the sealing ring 40416 when the blocking column 40413 moves. The diameter value of the blocking column 40413 is greater than the diameter value of the connecting rod 40412. When the blocking column 40413 continuously moves outward and separates from the sealing ring 40416, the side groove 4048 is connected to the outside world, and the wind cleaning performance of the outer surface of the core block 4041 is further realized. The side wall of the blocking column 40413 is provided with an inner groove 40414, and the inner groove 40414 matches the outer surface of the pressure sensor 40415. The setting of the inner groove 40414 ensures the flatness and smoothness of the outer surface of the pressure sensor 40415 and the blocking column 40413, thereby correspondingly improving the quality of the finished product.

[0057] Two finished structures 5 are symmetrically arranged inside the movable mold structure 4, and the finished structure 5 includes an inner shell 501, and the peripheral side surfaces of the inner shell 501 respectively match the side walls of the first static mold plate 205, the molding groove 403 and the adjusting component 4, so that the molten hard material is injected between the first static mold plate 205 and the movable mold structure 4 to form the inner shell 501, and an inner hole 502 is arranged inside the inner shell 501, and the inner wall of the inner hole 502 matches the outer surface of the protruding block 40417, and the setting of the protruding block 40417 forms the inner hole 502 structure, and an outer shell 503 is arranged on one side of the inner shell 501, and the peripheral side surfaces of the outer shell 503 respectively match the side walls of the second static mold plate 305, the molding groove 403 and the adjusting component 404, and the soft material forms the outer shell 503 between the second static mold plate 305 and the movable mold structure 4, thereby finally forming the desired finished structure 5.

[0058] When the two-color high-pressure injection mold is performing injection molding, the molten hard material or molten soft material used for injection molding cannot be fully mixed and stirred at the movable mold core 402, and is easily accumulated on one side of the movable mold core 402, thereby reducing the quality of subsequent injection molding; when the injection molding of the molten hard material is completed and before the subsequent soft material injection molding is performed, the finished product will rotate with the rotation of the movable mold core 402. During the rotation, the finished product will be subjected to centrifugal force and cause the finished product to shift, thereby reducing the accuracy and stability of the subsequent soft material injection molding; and after the injection molding of the molten hard material is completed and the mold is opened, the movable mold core 402 drives the finished product to rotate. Due to the reduction of the external environment, the finished product will shrink under the principle of its own thermal expansion and contraction, which is easy to affect the injection amount of the subsequent soft material during the subsequent soft material injection molding, and ultimately affect the quality of the finished product; when the soft material injection molding is completed, injection impurities are likely to remain on the outer surface of the movable mold core 402. If the impurities cannot be quickly cleaned, the subsequent injection molding quality will be affected.

[0059] In order to solve the above problems, when the two-color high-pressure injection mold is actually used, the movable plate 103 moves along the limit rod 102 to the end close to the fixed plate 101. At this time, the two movable mold structures 4 are tightly closed with the first static mold structure 2 and the second static mold structure 3, respectively, wherein the multiple first plug rods 208 and the second plug rods 308 are respectively plugged and fixed with the multiple plug holes 422 inside the two movable mold modules 401, and the first static mold plate 205 and the second static mold plate 305 are respectively matched with the two movable mold modules 401, and then the injection molding process is carried out simultaneously, and in the initial state, the power-on current of the electromagnetic block 4049 is at the initial value, and the electromagnetic block 4049 is connected to the magnetic sealing block 40 The magnetic repulsion force applied by 411 drives the magnetic sealing block 40411 to stretch the reset spring 40410 and is in the initial position. The magnetic sealing block 40411 drives the blocking column 40413 to be in the initial position through the connecting rod 40412. At the same time, the internal gas of the side groove 4048 enters the connecting hole 4046 and applies a thrust to the end of the vertical rod 4045. The other end of the vertical rod 4045 drives the ejection block 4043 to move along the annular groove 4042 to the initial value. The ejection block 4043 blocks multiple side row holes 4047, and the ends of the ejection block 4043 and the blocking column 40413 match the side walls of the core block 4041, and the core block 4041 is a complete and smooth structure.

[0060] Then, the molten hard material is introduced into the first injection tube 202 along the injection hole 107. The molten hard material reaches the first static mold plate 205, the area between the core block 4041 and the molding groove 403 under the spraying action of the first high-pressure nozzle 204 and the first guide tube 206. At the same time, the heat medium is introduced into the first heat flow tube 207 to improve the fluidity and stability of the molten hard material. Then, the current of the electromagnetic block 4049 changes continuously. The magnetic repulsion applied by the electromagnetic block 4049 to the magnetic sealing block 40411 The magnetic sealing block 40411 is driven to reciprocate inside the side groove 4048 by the force and the elastic force of the return spring 40410. The magnetic sealing block 40411 drives the blocking column 40413 to reciprocate along the sealing ring 40416 through the connecting rod 40412. The blocking column 40413 reciprocates and vibrates the molten hard material, further improving the fluidity and stability of the molten hard material between the core block 4041 and the first static mold plate 205, thereby avoiding the long-term accumulation of the molten hard material and affecting the injection molding quality.

[0061] At the same time, when the magnetic sealing block 40411 moves back and forth inside the side groove 4048, the force exerted by the magnetic sealing block 40411 on the gas inside the side groove 4048 changes, and the gas inside the side groove 4048 continuously reciprocates along the connecting hole 4046. The air pressure inside the connecting hole 4046 continuously changes and the thrust exerted on the side wall of the vertical rod 4045 changes. Under the action of the air pressure thrust, the vertical rod 4045 drives the ejection block 4043 to stretch the connecting spring 4044 and reciprocate along the annular groove 4042. The ejection block 4043 exerts a reciprocating vibration force on the molten hard material between the core block 4041 and the molding groove 403, thereby further improving the fluidity and uniformity of the molten hard material.

[0062] Afterwards, the ejection block 4043 and the blocking column 40413 stop vibrating the molten hard material. If the molten hard material is evenly distributed, the pressure values ​​detected by the multiple pressure sensors 40415 are all the preset pressure values. When the molten hard material accumulates on one side of the core block 4041, the pressure value applied by the molten hard material to the pressure sensor 40415 at the end of the blocking column 40413 increases, and the pressure value detected by the pressure sensor 40415 increases, while the pressure values ​​detected by the pressure sensors 40415 at other positions decrease. Then, the current of the electromagnetic block 4049 at the end where the pressure value detected by the pressure sensor 40415 increases, and the magnetic repulsion force applied by the electromagnetic block 4049 to the magnetic sealing block 40411 increases, driving the magnetic sealing block 40411 to stretch the reset spring 40410 and move away from the end of the electromagnetic block 4049. The magnetic sealing block 40411 drives the blocking column 40413 to move outward through the connecting rod 40412.

[0063] And because the magnetic sealing block 40411 moves and applies an extrusion pressure to the internal gas of the side groove 4048, the internal gas of the side groove 4048 enters the connecting hole 4046 and increases the thrust applied to the end of the vertical rod 4045, and the vertical rod 4045 drives the ejection block 4043 along the connecting hole 4046 to stretch the connecting spring 4044 to move outward, then the thrust applied by the ejection block 4043 and the blocking column 40413 to the molten hard material increases, and the molten hard material moves around under the action of the extrusion pressure, thereby causing the pressure values ​​detected by the other multiple pressure sensors 40415 to continuously increase to the set pressure preset value, ensuring that the harder raw material is evenly distributed between the first static mold plate 205, the molding groove 403 and the core block 4041, thereby improving the fluidity and uniformity of the molten hard material, and the end of the protruding block 40417 contacts the side wall of the first static mold plate 205, then an inner hole 502 is formed at the center of the inner shell 501.

[0064] After the molten hard material is injected and the inner shell 501 is formed, the inner shell 501 is attached to the outer surface of the core block 4041, and the movable plate 103 moves in the opposite direction along the limit rod 102 to the maximum distance, and then the movable plate 103 synchronously drives the two movable mold structures 4 to move in the opposite direction, and the two movable mold structures 4 are molded with the first static mold structure 2 or the second static mold structure 3. After the mold separation is completed, the rotating disk 105 rotates and drives the two movable mold structures 4 to rotate synchronously, and the movable mold structure 4 drives the inner shell 501 to rotate, and during the rotation During the process, in order to prevent the inner shell 501 from separating from the movable mold structure 4 under the action of centrifugal force, the current of the electromagnetic block 4049 continues to decrease, and the magnetic repulsion force exerted by the electromagnetic block 4049 on the magnetic sealing block 40411 decreases. Under the elastic force of the reset spring 40410, the magnetic sealing block 40411 continues to move toward the end of the electromagnetic block 4049, and the magnetic sealing block 40411 drives the blocking column 40413 to move away from the end of the inner shell 501 through the connecting rod 40412.

[0065] At the same time, since the internal volume of the side groove 4048 increases and the air pressure decreases, the gas in the connecting hole 4046 enters the side groove 4048, and the interior of the connecting hole 4046 is subjected to negative pressure, and the ejector block 4043 is driven to move inward along the annular groove 4042 under the elastic force of the connecting spring 4044, and the ejector block 4043 is separated from the blockage of the opposite side row holes 4047, and a suction force is applied to the multiple side row holes 4047 under the negative pressure of the connecting hole 4046, and the other end of the side row holes 4047 applies a suction force to the inner wall of the inner shell 501 through the annular groove 4042, thereby further improving the adsorption effect of the inner shell 501 on the outer surface of the core block 4041, and preventing the moving module 401 from driving the inner shell 501 to rotate when the rotating disk 105 rotates, and preventing the inner shell 501 from being separated from the core block 4041 under the centrifugal force on the inner shell 501 itself, thereby affecting the subsequent soft material injection molding accuracy.

[0066] When the rotating disk 105 rotates 180 degrees and drives the two movable mold structures 4 to rotate synchronously, the inner shell 501 end moves to match the second static mold structure 3, the current of the electromagnetic block 4049 increases and returns to the initial value, then the magnetic sealing block 40411 synchronously returns to the initial value, the blocking column 40413 and the ejection block 4043 are at the initial value and match the outer surface of the core block 4041.

[0067] At this time, if the external ambient temperature is too low, the inner shell 501 will shrink synchronously according to the principle of its own thermal expansion and contraction, and the pressure value applied by the inner shell 501 to the multiple pressure sensors 40415 will increase. Then, the pressure values ​​detected by the multiple pressure sensors 40415 will increase and be greater than the set pressure preset value. At this time, if soft material injection molding is performed directly, there will be a gap between the side surfaces of the inner shell 501 and the molding groove 403 and the second static mold plate 305, which may easily cause damage to the subsequent injection molding of the outer shell 503.

[0068] The current of the electromagnetic block 4049 increases and the magnetic repulsion force exerted on the magnetic sealing block 40411 increases. The magnetic sealing block 40411 stretches the reset spring 40410 to move away from the end of the electromagnetic block 4049. The magnetic sealing block 40411 drives the blocking column 40413 to move outward through the connecting rod 40412. The blocking column 40413 applies a thrust to the inner wall of the inner shell 501 and moves the inner shell 501 to the initial distance. At the same time, the gas inside the side groove 4048 enters the connecting hole 4046 and applies a thrust to the end of the vertical rod 4045. The other end of the vertical rod 4045 drives the ejection block 4043 to stretch the connecting spring 4044 to move outward. The ejection block 4043 applies a thrust to the inner wall of the inner shell 501 and makes the other end of the inner shell 501 fit with the inner wall of the molding groove 403, thereby ensuring the accurate position of the inner shell 501 and improving the subsequent injection molding quality of the molten soft material.

[0069] The above process is then repeated, the movable plate 103 moves toward the end close to the fixed plate 101, the movable module 401 fits tightly against the second static mold plate 305, the molten soft material is introduced into the second injection tube 302 along the injection hole 107, the molten soft material is ejected along the second high-pressure nozzle 304 and the second guide tube 306, the heat medium is introduced into the second heat flow tube 307, and the above process is repeated to perform injection molding on the molten soft material, thereby forming an outer shell 503 on the outer surface of the inner shell 501.

[0070] After the processing of the finished product structure 5 is completed, the movable plate 103 moves in the reverse direction to the initial position, and the movable plate 103 drives the movable mold structure 4 to move in the reverse direction to the initial position through the rotating disk 105, and the movable mold structure 4 drives the multiple finished product structures 5 inside to move in the reverse direction to the initial position. At this time, the rotating screw 420 matched with the second static mold structure 3 rotates forward and drives the threaded ring 421 to move horizontally, and the threaded ring 421 drives the ejector plate 406 to move, and the ejector plate 406 drives multiple ejector pins 407 to move along the ejection hole 426, and the ejector pins 407 eject the finished product structure 5. At the same time, during the ejection process, the electromagnetic block The current flowing through 4049 decreases, and the elastic force of the reset spring 40410 drives the magnetic sealing block 40411 to move toward the end of the electromagnetic block 4049. The magnetic sealing block 40411 drives the blocking column 40413 to move through the connecting rod 40412, and the end of the blocking column 40413 is separated from the inner wall of the inner shell 501. At the same time, the side groove 4048 applies a suction force to the vertical rod 4045 inside the connecting hole 4046 under the action of negative pressure, and the vertical rod 4045 drives the ejection block 4043 to move inward along the annular groove 4042, and the end of the ejection block 4043 is separated from the inner wall of the inner shell 501.

[0071] Afterwards, the current flowing through the electromagnetic block 4049 increases, and the electromagnetic block 4049 applies magnetic repulsion to the magnetic sealing block 40411 and drives the magnetic sealing block 40411 to stretch the reset spring 40410 and move away from the end of the electromagnetic block 4049, and the magnetic sealing block 40411 drives the blocking column 40413 to move through the connecting rod 40412, and the blocking column 40413 applies thrust to the inner wall of the inner shell 501 and cooperates with the ejector pin 407 to increase the demoulding speed of the inner shell 501, and at the same time, the gas inside the side groove 4048 applies thrust to the end of the vertical rod 4045 inside the connecting hole 4046, and the other end of the vertical rod 4045 drives the ejection block 4043 to stretch the connecting spring 4044 and move outward, and the ejection block 4043 applies thrust to the inner wall of the inner shell 501, so that the inner wall of the inner shell 501 is quickly separated from the outer surface of the core block 4041, thereby improving the demoulding efficiency of the inner shell 501.

[0072] After demoulding is completed, the current of the electromagnetic block 4049 reaches the maximum value, the electromagnetic block 4049 exerts a magnetic repulsion force on the magnetic sealing block 40411 to the maximum value, the magnetic sealing block 40411 stretches the reset spring 40410 to move to the maximum value away from the electromagnetic block 4049, and the magnetic sealing block 40411 drives the blocking column 40413 to move to the maximum value through the connecting rod 40412, and the blocking column 40413 is separated from the sealing ring 40416. At the same time, the gas inside the side groove 4048 exerts a thrust on the end of the vertical rod 4045 inside the connecting hole 4046 to reach the maximum value, and the other end of the vertical rod 4045 drives the ejection block 4043 to stretch the connecting spring 4044 to move outward to the maximum value, and the ejection block 4043 is separated from the annular groove 4042, but since the vertical rod 4045 is still moving inside the connecting hole 4046, part of the gas inside the side groove 4048 is discharged along the end of the side groove 4048 under the thrust of the magnetic sealing block 4041, thereby achieving the wind cleaning effect on the end of the core block 4041, and another part of the gas inside the side groove 4048 enters the inside of the multiple side row holes 4047 along the connecting hole 4046, and is discharged to the annular groove 4042 along the other end of the side row holes 4047, and finally is discharged to the inside of the molding groove 403 along the annular groove 4042, thereby achieving the wind cleaning effect on the inner wall of the molding groove 403, improving the cleaning efficiency, ensuring the cleaning effect, and avoiding affecting the subsequent two-color high-pressure injection molding.

[0073] Afterwards, the rotating disk 105 continues to rotate 180 degrees and repeats the above process to continuously perform the two-color high-pressure injection molding process.

[0074] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0075] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A two-color high-pressure injection mold, comprising a support structure (1), characterized in that: A first static mold structure (2) is provided on one side of the support structure (1), a second static mold structure (3) is provided on one side of the first static mold structure (2), and two dynamic mold structures (4) are symmetrically provided on the other side of the support structure (1); The support structure (1) comprises a fixed plate (101), one side of the fixed plate (101) being rotatably connected to a rotating disk (105); The first static mold structure (2) comprises a first static mold plate (205); The second static mold structure (3) comprises a second static mold plate (305); The movable mold structure (4) comprises a movable mold block (401), a movable mold core (402) is arranged inside the movable mold block (401), two molding grooves (403) are symmetrically arranged inside the movable mold core (402), and an adjustment component (404) is arranged inside the molding groove (403); The adjustment component (404) includes two core blocks (4041), the peripheral side of the core block (4041) is provided with an annular groove (4042), and the internal sealing sliding connection of the annular groove (4042) is connected with multiple ejection blocks (4043); one side of the core block (4041) is evenly provided with multiple side grooves (4048), and the internal sealing sliding connection of the side groove (4048) is connected with a magnetic sealing block (40411), and the other end of the magnetic sealing block (40411) is provided with a blocking column (40413) through a connecting rod (40412), and the other end of the blocking column (40413) is provided with a pressure sensor (40415).

2. The two-color high-pressure injection mold according to claim 1, characterized in that: A plurality of limit rods (102) are evenly arranged inside the fixed plate (101); a movable plate (103) is slidably connected to one side of the fixed plate (101); a center hole (104) is opened at the axis of the movable plate (103); the inner wall of the center hole (104) is sealingly rotatably connected to the outer surface of the rotating disk (105); a plurality of docking holes (106) are evenly arranged inside the movable plate (103); the inner wall of the docking hole (106) is sealingly slidably connected to the outer surface of the limit rod (102); a plurality of injection holes (107) are symmetrically arranged inside the fixed plate (101); and a plurality of splicing holes (108) are evenly arranged inside the fixed plate (101) and the movable plate (103).

3. The two-color high-pressure injection mold according to claim 2, characterized in that: The first static mold structure (2) also includes a first side plate (201), a first connecting plate (203) is provided on the other side of the first side plate (201), a first injection tube (202) is provided inside the first side plate (201), an input end of the first injection tube (202) is connected to the injection hole (107), one side of the first side plate (201) is fixedly connected to the side wall of the fixed plate (101), a plurality of first plug rods (208) are evenly provided on one side of the first side plate (201), a plurality of first plug holes (210) are evenly provided inside the first connecting plate (203), and the outer surface of the first plug rod (208) matches the inner wall of the first plug hole (210).

4. The two-color high-pressure injection mold according to claim 3, characterized in that: A first static mold groove (209) is provided inside the first connecting plate (203), and the inner wall of the first static mold groove (209) is mutually clamped with the outer surface of the first static mold plate (205). A first high-pressure nozzle (204) is provided inside the first connecting plate (203), and the input end of the first high-pressure nozzle (204) is connected to the first injection tube (202). A first guide tube (206) is provided inside the first static mold plate (205), and the output end of the first high-pressure nozzle (204) is connected to the input end of the first guide tube (206). A first heat flow tube (207) is provided inside the first static mold plate (205).

5. The two-color high-pressure injection mold according to claim 2, characterized in that: The second static mold structure (3) also includes a second side plate (301), a second injection tube (302) is provided inside the second side plate (301), the input end of the second injection tube (302) is connected to the injection hole (107), one side of the second side plate (301) is fixedly connected to the side wall of the fixed plate (101), the other side of the second side plate (301) is provided with a second connecting plate (303), one side of the second side plate (301) is evenly provided with a plurality of second plug rods (308), the inside of the second connecting plate (303) is evenly provided with a plurality of second plug holes (310), and the outer surface of the second plug rod (308) matches the inner wall of the second plug hole (310).

6. The two-color high-pressure injection mold according to claim 5, characterized in that: A second static mold groove (309) is provided inside the second connecting plate (303), and the inner wall of the second static mold groove (309) is mutually clamped with the outer surface of the second static mold plate (305). A second high-pressure nozzle (304) is provided inside the second connecting plate (303), and the input end of the second high-pressure nozzle (304) is connected to the second injection tube (302). A second guide tube (306) is provided inside the second static mold plate (305), and the output end of the second high-pressure nozzle (304) is connected to the input end of the second guide tube (306). A second heat flow tube (307) is provided inside the second static mold plate (305).

7. The two-color high-pressure injection mold according to claim 1, characterized in that: A plurality of jacks (422) are evenly arranged inside the moving module (401); two limit blocks (424) are symmetrically arranged on one side of the moving module (401) close to the rotating disk (105); a follower plate (423) is arranged on the other side of the limit block (424); the other side of the follower plate (423) is fixedly connected to the side wall of the rotating disk (105); a mounting plate (405) is arranged on one side of the follower plate (423) and located between the two limit blocks (424); a top plate (406) is slidably connected to the other side of the mounting plate (405); a plurality of ejector pins (407) are evenly arranged on the other end of the top plate (406); a plurality of ejector holes (426) are evenly arranged inside the moving module (401); the ejector pins (407) and the ejector holes (426) are connected to each other. ) are sealed and slidably connected, a rotating screw (420) is provided inside the mounting plate (405), a threaded ring (421) is provided on the outer surface of the rotating screw (420), the inside of the top plate (406) and the outer surface of the threaded ring (421) are rotatably connected via a bearing, a plurality of cross bars (408) are evenly provided on one side of the movable module (401), the other end of the cross bar (408) is fixedly connected to the side wall of the follower plate (423), a plurality of sliding holes (409) are evenly provided inside the mounting plate (405) and the top plate (406), the cross bar (408) and the sliding hole (409) are sealed and slidably connected, a movable mold groove (425) is provided on one side of the movable module (401), and the movable mold groove (425) and the movable mold core (402) are mutually clamped and fixed.

8. The two-color high-pressure injection mold according to claim 1, characterized in that: The side wall of the ejector block (4043) matches the inner wall of the molding groove (403), the adjacent ejector blocks (4043) are sealed and slidably connected and match the side wall of the core block (4041), a plurality of connecting holes (4046) are evenly opened on one side of the annular groove (4042), the other end of the connecting hole (4046) is connected to the side groove (4048), the inside of the connecting hole (4046) is sealed and slidably connected with a vertical rod (4045), the other end of the vertical rod (4045) is sealed and slidably connected to the ejector block (404 3), the inner wall of the annular groove (4042) is evenly provided with a plurality of connecting springs (4044), the other side of the connecting spring (4044) is fixedly connected to the side wall of the ejection block (4043), the connecting spring (4044) is located on the outer surface of the vertical rod (4045), and the peripheral side surface of the connecting hole (4046) is evenly provided with a plurality of side row holes (4047), the other end of the side row holes (4047) passes through the core block (4041) and is connected to the upper side wall of the annular groove (4042).

9. The two-color high-pressure injection mold according to claim 1, characterized in that: One side of the core block (4041) is fixedly connected to the side wall of the molding groove (403), and the other side of the core block (4041) is provided with a protruding block (40417). The inner wall of the side groove (4048) is provided with an electromagnetic block (4049), and the other end of the electromagnetic block (4049) is provided with a return spring (40410). The other end of the return spring (40410) is fixedly connected to the side wall of the magnetic sealing block (40411). The end faces of the electromagnetic block (4049) and the magnetic sealing block (40411) facing each other have the same magnetic properties. A sealing ring (40416) is provided at the inner wall end of the plugging column (4048), and the inner wall of the sealing ring (40416) is sealingly and slidably connected to the outer surface of the plugging column (40413). The diameter of the plugging column (40413) is greater than the diameter of the connecting rod (40412). The side wall of the plugging column (40413) is provided with an inner groove (40414), and the inner groove (40414) matches the outer surface of the pressure sensor (40415). The pressure sensor (40415) is used to detect the pressure value applied to the end of the plugging column (40413).

10. The two-color high-pressure injection mold according to claim 9, characterized in that: Two finished product structures (5) are symmetrically arranged inside the movable mold structure (4), and the finished product structure (5) includes an inner shell (501), and the peripheral side surfaces of the inner shell (501) respectively match the side walls of the first static mold plate (205), the molding groove (403) and the adjustment component (404); an inner hole (502) is arranged inside the inner shell (501), and the inner wall of the inner hole (502) matches the outer surface of the protruding block (40417); an outer shell (503) is arranged on one side of the inner shell (501), and the peripheral side surfaces of the outer shell (503) respectively match the side walls of the second static mold plate (305), the molding groove (403) and the adjustment component (404).

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