An injection mold for intelligent manufacturing

Abstract

The present invention relates to the field of injection molding production technology, specifically, an injection mold for intelligent manufacturing, including a double-track slide and a driving mechanism, a sliding block is installed on the double-track slide, and a movable mold assembly and a static mold assembly are fixedly mounted on two sets of sliding blocks, and two output ends on the driving mechanism are respectively connected to the movable mold assembly and the static mold assembly, and the movable mold assembly and the static mold assembly slide toward and away from each other along the double-track slide through the driving mechanism to shorten the injection and demolding time of the injection molded parts. The injection mold for intelligent manufacturing provided by the present invention greatly reduces the separation rate of the movable mold and the static mold through the driving mechanism, speeds up the demolding time of the injection molded parts, and reduces the time interval between the production of two injection molded parts, and the intelligent control terminal turns on the exhaust fan so that the exhaust fan absorbs the unpleasant gas and discharges it into the purification cylinder through the air duct, which not only improves the working environment of the workshop, but also improves the physical and mental health of the operator.

Description

Technical Field

[0001] The invention relates to the technical field of injection molding production, in particular to an injection mold for intelligent manufacturing. Background Art

[0002] Injection molds are tools used in the plastic processing industry to match plastic molding machines and give plastic products complete configurations and precise dimensions. Due to the wide variety of plastics and processing methods, and the varying structures of plastic molding machines and plastic products, there are also a variety of types and structures of plastic molds.

[0003] With the rapid development of the plastics industry and the continuous improvement of the strength of general and engineering plastics, the application scope of plastic products is also expanding, and the amount of plastic products is also increasing. Plastic mold is a tool for producing plastic products. It is composed of several groups of parts, and there is a molding cavity in this combination. During injection molding, the mold is clamped on the injection molding machine, and the molten plastic is injected into the molding cavity, where it is cooled and shaped. Then the upper and lower molds are separated, and the product is ejected from the mold cavity by the ejection system. Finally, the mold is closed for the next injection molding. The entire injection molding process is carried out in a cycle.

[0004] At present, when the traditional movable mold and static mold are separated, the movable mold just slides away from the static mold in one direction. This not only speeds up the demolding time of the injection molded parts, but also the time interval between the production of two injection molded parts is long, and the efficiency of injection molding production is difficult to improve. At the same time, some trace monomers made of plastics such as polyvinyl chloride, styrene, polyethyl acetate and acrylate will produce unpleasant odors, which are emitted when the movable mold and static mold are separated, resulting in a poor workshop environment.

[0005] Therefore, it is necessary to provide a new injection mold for intelligent manufacturing to solve the above technical problems. Summary of the invention

[0006] In order to solve the above technical problems, the present invention provides an injection mold for intelligent manufacturing.

[0007] The injection mold for intelligent manufacturing provided by the present invention comprises: a double-track slide rail and a driving mechanism, wherein two groups of sliding blocks symmetrically distributed and slidably connected are installed on the double-track slide rail, and a movable mold assembly and a static mold assembly are fixedly mounted on the two groups of sliding blocks, respectively, and two output ends on the driving mechanism are respectively connected to the movable mold assembly and the static mold assembly, and the movable mold assembly and the static mold assembly are slid toward and away from each other along the double-track slide rail through the driving mechanism to shorten the injection and demolding time of the injection molded parts, and the driving mechanism comprises a hydraulic cylinder, a rotating connector, a rotating connecting rod and a connecting column, and the output end of the hydraulic cylinder is fixedly welded with a rotating connector, and two rotating connecting rods rotatably connected are sleeved on the rotating connector, and the two rotating connecting rods have the same specifications, and the other ends of the two rotating connecting rods are fixedly installed with connecting columns, wherein one of the connecting columns is fixedly connected to the connecting end at the top of the movable module in the movable mold assembly, and the other connecting column is fixedly connected to the connecting end at the top of the static module in the static mold assembly;

[0008] Mounting plates are fixedly installed at both ends of the double-track slide rail. A purification component is installed on the mounting plate close to the movable mold assembly, and the injection molded parts made of impure resin materials are odor purified by the purification component; an air purge component is installed on the mounting plate close to the static mold assembly, and the air purge component is used to improve the fluidity of the pores between the movable module and the static module.

[0009] Preferably, the purification assembly comprises a mounting base, an induced ventilator, a mounting frame, a purification cylinder, an air duct, a sealing cover and an exhaust hole; a row of equidistantly distributed induced ventilators are mounted on the mounting base, and the air inlet of the induced ventilator is downward; the mounting frame is fixedly mounted on the mounting base, and a plurality of equidistantly distributed purification cylinders are embedded in the mounting frame; the number of the purification cylinders is equal to that of the induced ventilators, and the air inlet of the purification cylinder is connected to the air outlet of the induced ventilator through the air duct; a plurality of evenly distributed exhaust holes are opened on the cylinder wall at the rear of the purification cylinder, and a sealing cover is inserted at the cylinder mouth at the rear of the purification cylinder;

[0010] The installation base plate is fixed on the installation plate by screws, and the induced draft fan installed on the installation base plate corresponds to the mold core on the moving module.

[0011] Preferably, an activated carbon column for absorbing odor is inserted in each of the purification cylinders, and an external elastic member for ejecting the activated carbon column is installed on the inner cylinder wall of each purification cylinder near the air inlet.

[0012] Preferably, the outer elastic member includes a pressure ring and a spring, the pressure ring is elastically connected to the inner cylinder wall of the purification cylinder close to the air inlet through the spring, and the outer ring surface of the pressure ring is against the activated carbon column.

[0013] Preferably, the air expelling assembly includes a honeycomb exhaust pipe head, an accordion air outlet pipe and a connecting air port. Several honeycomb exhaust pipe heads of the same specifications are embedded in the static module. The connecting air port of each honeycomb exhaust pipe head is fixedly connected to one end of an accordion air outlet pipe, and the other end of the honeycomb exhaust pipe head is fixedly connected to the inner plate wall of the mounting plate close to the static module assembly.

[0014] Preferably, a plurality of the honeycomb exhaust pipe heads are distributed in a ring shape around the molding cavity opened by the static module, and an injection port is installed in the middle of the molding cavity opened by the static module, and the injection port is connected to the molding cavity.

[0015] Preferably, a demoulding push head with a sliding connection is installed in the middle of the mold core in the movable module, and the demoulding push head is fixedly connected to the output end of the demoulding hydraulic cylinder.

[0016] Preferably, a demoulding net bag is installed between the dynamic module and the static module, and the demoulding net bag is made of elastic pearlescent joint yarns woven vertically and horizontally.

[0017] Preferably, the hydraulic cylinder in the driving mechanism is fixedly embedded on the inner top wall of the workshop through a fixed mounting plate, and the double-track slide rail is located on the workbench of the workshop.

[0018] Compared with the related art, the intelligent manufacturing injection mold provided by the present invention has the following beneficial effects:

[0019] 1. The present invention starts the output end of the hydraulic cylinder to slide outward. At this time, the two rotating connecting rods rotatably connected on the rotating connecting head respectively push the dynamic module and the static module to slide in opposite directions along the double-track slide rails as the output end of the hydraulic cylinder slides outward. Compared with the traditional mode in which the dynamic mold slides away from the static mold in one direction, the present invention greatly reduces the separation rate of the dynamic mold and the static mold through the driving mechanism, speeds up the demoulding time of the injection molded parts, and reduces the time interval between the production of two injection molded parts;

[0020] 2. After the injection molded part of the present invention is demolded by the demolding pusher, if the gas sensor detects that a large amount of irritating gas flows in the middle cavity after the moving module and the static module are separated, the intelligent control terminal turns on the exhaust fan so that the exhaust fan absorbs the unpleasant gas and discharges it into the purification cylinder through the air duct. Since an activated carbon column is placed in the purification cylinder, the activated carbon column can effectively absorb and purify the irritating gas, reducing the instantaneous emission of a large amount of irritating gas from the middle cavity after the moving module and the static module are separated, which not only improves the working environment of the workshop, but also improves the physical and mental health of the operators. The gas purified by the activated carbon column can be discharged back to the workshop through the exhaust hole, which enhances the fluidity of the workshop gas;

[0021] 3. When the dynamic mold and the static mold of the present invention are separated, the static mold assembly slides toward the mounting plate along the double-track slide rail driven by the driving mechanism, and the accordion air outlet pipe is compressed by the back of the static module, so that the gas in the accordion air outlet pipe is discharged through the honeycomb exhaust pipe head. On the one hand, the injection molded parts attached to the mold core are subsequently cooled by air, and on the other hand, the fluidity of the gas in the middle cavity after the dynamic module and the static module are separated is improved, and the purification rate of the gas in the middle cavity is accelerated by cooperating with the induced fan in the purification assembly. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 A schematic structural diagram of a preferred embodiment of the injection mold for intelligent manufacturing provided by the present invention;

[0023] Figure 2 for Figure 1 One of the schematic diagrams of the connection structure between the movable mold assembly and the static mold assembly and the driving mechanism;

[0024] Figure 3 for Figure 1 The second schematic diagram of the connection structure between the movable mold assembly and the static mold assembly and the driving mechanism;

[0025] Figure 4 for Figure 1 A schematic diagram of the structure of the driving mechanism shown;

[0026] Figure 5 for Figure 1 A schematic diagram of the structure of the purification component shown;

[0027] Figure 6 for Figure 5 The schematic diagram of the partial cross-sectional structure of the purification cartridge shown;

[0028] Figure 7 for Figure 6 A schematic diagram of the enlarged structure shown.

[0029] Numbers in the figure: 1. Double-track slide rail; 2. Moving mold assembly; 21. Moving module block; 22. Mold core; 23. Demolding push head; 3. Static mold assembly; 31. Static module block; 32. Injection port; 33. Molding cavity; 4. Driving mechanism; 41. Hydraulic cylinder; 42. Rotating connecting head; 43. Rotating connecting rod; 44. Connecting column; 5. Exhaust assembly; 51. Honeycomb exhaust pipe head; 52. Organ exhaust pipe; 53. Connecting air port; 6. Mounting plate; 7. Demolding net bag; 8. Purification assembly; 81. Mounting base plate; 82. Induced air fan; 83. Mounting frame; 84. Purification cylinder; 85. Air guide pipe; 86. Sealing cover; 87. Exhaust hole; 9. External elastic part; 91. Pressure ring; 92. Spring; 9a. Activated carbon column. DETAILED DESCRIPTION

[0030] The present invention will be further described below in conjunction with the accompanying drawings and implementation modes.

[0031] Please refer to Figures 1 to 7 The present invention discloses an intelligent manufacturing injection mold, comprising a double-track slide 1 and a driving mechanism 4, wherein mounting plates 6 are fixedly mounted at both ends of the double-track slide 1, and two groups of sliding blocks symmetrically distributed and slidably connected are mounted on the double-track slide 1, and a movable mold assembly 2 and a static mold assembly 3 are fixedly mounted on the two groups of sliding blocks, respectively, and two output ends of the driving mechanism 4 are respectively connected to the movable mold assembly 2 and the static mold assembly 3, and the movable mold assembly 2 and the static mold assembly 3 are slid toward and away from each other along the double-track slide 1 through the driving mechanism 4 to shorten the injection and demolding time of the injection molded part, and the driving mechanism 4 includes a hydraulic cylinder 41, a rotating connector 42. Rotating connecting rod 43 and connecting column 44. The hydraulic cylinder 41 is hydraulically controlled by an intelligent control terminal in an injection mold workshop. A rotating connecting head 42 is fixedly welded on the output end of the hydraulic cylinder 41, and two rotating connecting rods 43 are sleeved on the rotating connecting head 42. The two rotating connecting rods 43 have the same specifications, and the other ends of the two rotating connecting rods 43 are fixedly installed with connecting columns 44, one of which is fixedly connected to the connecting end at the top of the moving module 21 in the moving mold assembly 2, and the other connecting column 44 is fixedly connected to the connecting end at the top of the static module 31 in the static mold assembly 3.

[0032] It should be noted that: when the movable mold assembly 2 and the static mold assembly 3 of the injection mold are performing injection molding, the output end of the hydraulic cylinder 41 is opened for return motion, so that the two rotating connecting rods 43 rotatably connected on the rotating connecting head 42 pull the movable module 21 and the static module 31 to slide toward each other along the double-track slide rail 1 as the return stroke of the output end of the hydraulic cylinder 41 is pulled, so that the movable mold assembly 2 and the static mold assembly 3 can be quickly molded, and as the injection is performed through the injection port 32, after the cooling system in the mold cools the injection molded part, the output end of the hydraulic cylinder 41 is opened. At this time, the two rotating connecting rods 43 rotatably connected on the rotating connecting head 42 slide outward with the output end of the hydraulic cylinder 41 to push the movable module 21 and the static module 31 to slide opposite to each other along the double-track slide rail 1. Compared with the traditional mode in which the movable mold slides away from the static mold in one direction, the present invention adds a driving mechanism 4 between the movable mold and the static mold, the purpose of which is to enable the movable mold and the static mold to move toward or away from each other, thereby greatly reducing the separation rate of the movable mold and the static mold, accelerating the demolding time of the injection molded parts, and reducing the time interval between the production of two injection molded parts.

[0033] As an embodiment of the present invention, a purification component 8 is installed on the mounting plate 6 close to the movable mold component 2, and the purification component 8 is used to purify the odor of the injection molded parts made of impure resin materials, and the purification component 8 includes a mounting substrate 81, an exhaust fan 82, a mounting frame 83, a purification cylinder 84, an air guide pipe 85, a sealing cover 86 and an exhaust hole 87. A row of exhaust fans 82 with equal spacing are installed on the mounting substrate 81, and the air inlet of the exhaust fan 82 is downward. The mounting substrate 81 is fixed on the mounting plate 6 by screws, and the exhaust fan 82 installed on the mounting substrate 81 corresponds to the mold core 22 on the movable module 21. The mounting frame 83 is fixedly mounted on the mounting substrate 81, and a plurality of equally spaced purification cylinders 84 are embedded in the mounting frame 83. The number of the purification cylinders 84 is equal to that of the induced ventilating fan 82, and the air inlet of the purification cylinder 84 is connected with the air outlet of the induced ventilating fan 82 through the air duct 85. A plurality of evenly distributed exhaust holes 87 are opened on the cylinder wall at the rear of the purification cylinder 84, and a sealing cover 86 is inserted at the cylinder mouth at the rear of the purification cylinder 84. A gas sensor is installed at the bottom of the mounting substrate 81, and the gas sensor is electrically connected to the induced ventilating fan 82 through an intelligent control terminal, and an activated carbon column 9a for absorbing odors is inserted in each of the purification cylinders 84.

[0034] It should be noted that: after the injection molded parts are demolded by the demolding pusher 23, if the gas sensor detects that a large amount of irritating gas flows in the middle cavity after the moving module 21 and the static module 31 are separated (for example, trace monomers remaining in plastics such as polyvinyl chloride, styrene, polyethyl acetate and acrylate will produce unpleasant odors), the intelligent control terminal turns on the exhaust fan 82 so that the exhaust fan 82 absorbs the unpleasant gas and discharges it into the purification cylinder 84 through the air duct 85. Since the activated carbon column 9a is placed in the purification cylinder 84, the activated carbon column 9a can effectively absorb and purify the irritating gas, thereby reducing the instantaneous emission of a large amount of irritating gas from the middle cavity after the moving module 21 and the static module 31 are separated, which not only improves the working environment of the workshop, but also improves the physical and mental health of the operators. The gas purified by the activated carbon column 9a can be discharged back to the workshop through the exhaust hole 87, thereby enhancing the fluidity of the workshop gas.

[0035] As an embodiment of the present invention, an external elastic member 9 for ejecting an activated carbon column 9a is installed on the inner cylinder wall of each purification cylinder 84 near the air inlet, and the external elastic member 9 includes a pressure ring 91 and a spring 92. The pressure ring 91 is elastically connected to the inner cylinder wall of the purification cylinder 84 near the air inlet through the spring 92, and the outer ring surface of the pressure ring 91 is against the activated carbon column 9a.

[0036] It should be noted that after the activated carbon column 9a has been used for a certain period of time, the sealing cover 86 is opened. When the activated carbon column 9a is stored in the purification cylinder 84, the activated carbon column 9a pushes the extrusion ring 91 and compresses the spring 92. Therefore, after the sealing cover 86 is opened, the activated carbon column 9a can be pushed outward by the compressed spring 92 through the pressure ring 91, so that the staff can quickly take out the activated carbon column 9a, making the replacement of the activated carbon column 9a more convenient.

[0037] As an embodiment of the present invention, an air venting assembly 5 is installed on the mounting plate 6 close to the static mold assembly 3, and the air venting assembly 5 is used to improve the pore fluidity between the dynamic module 21 and the static module 31, and the air venting assembly 5 includes a honeycomb exhaust pipe head 51, an accordion air outlet pipe 52 and a connecting air port 53, and several honeycomb exhaust pipe heads 51 of the same specifications are embedded in the static module 31, and the connecting air port 53 of each honeycomb exhaust pipe head 51 is fixedly connected to one end of an accordion air outlet pipe 52, and the other end of the honeycomb exhaust pipe head 51 is fixedly connected to the inner plate wall of the mounting plate 6 close to the static mold assembly 3, and several honeycomb exhaust pipe heads 51 are distributed in an annular manner around the molding cavity 33 opened in the static module 31, and an injection port 32 is installed in the middle of the molding cavity 33 opened in the static module 31, and the injection port 32 is connected to the molding cavity 33, and a slidably connected demolding push head 23 is installed in the middle of the mold core 22 in the dynamic module 21, and the demolding push head 23 is fixedly connected to the output end of the demolding hydraulic cylinder.

[0038] It should be noted that: when the dynamic mold and the static mold are separated, the static mold assembly 3 slides along the double-track slide rail 1 toward the mounting plate 6 under the drive of the driving mechanism 4, and the accordion air outlet pipe 52 is compressed by the back of the static module 31, so that the gas in the accordion air outlet pipe 52 is discharged through the honeycomb exhaust pipe head 51. On the one hand, the injection molded parts attached to the mold core 22 are subsequently cooled by air, and on the other hand, the fluidity of the gas in the middle cavity after the dynamic module 21 and the static module 31 are separated is improved, and the induced fan 82 in the purification assembly 8 is cooperated to accelerate the purification rate of the gas in the middle cavity.

[0039] As an embodiment of the present invention, the hydraulic cylinder 41 in the driving mechanism 4 is fixedly embedded on the inner top wall of the workshop through a fixed mounting plate, and the double-track slide rail 1 is located on the workbench in the workshop, thereby ensuring the stability of the movable mold assembly 2 and the static mold assembly 3 during sliding. A demolding net bag 7 is installed between the movable module 21 and the static module 31, and the demolding net bag 7 is made of elastic pearlescent tough wire woven vertically and horizontally. The demolding net bag 7 can well receive the injection molded parts after demolding.

[0040] Among them, Figure 3 As shown, the mold core 22 in the movable mold assembly 2 of the present invention is four cup lid injection mold cores arranged in a cross shape, and the demoulding pusher 23 is located in the middle of the four cup lid mold cores and is in a cross shape; Figure 2As shown, the molding cavities 33 in the static mold assembly 3 of the present invention are four cup lid injection molding cavities arranged in a cross shape, and the injection port 32 is located in the middle of the four molding cavities 33 and is connected with the four molding cavities 33 respectively. After the cup lids are demolded, the cross connecting frame connecting the four cup lids in the middle needs to be removed subsequently. It is worth noting that the static mold assembly 3 and the dynamic mold assembly 2 of the present invention are relatively static molds.

[0041] The working principle of the injection mold for intelligent manufacturing provided by the present invention is as follows:

[0042] When the movable mold assembly 2 and the static mold assembly 3 of the injection mold are performing injection molding, the output end of the hydraulic cylinder 41 is opened for return motion, so that the two rotating connecting rods 43 rotatably connected on the rotating connecting head 42 pull the movable module 21 and the static module 31 to slide toward each other along the double-track slide rail 1 as the output end of the hydraulic cylinder 41 returns, so that the movable mold assembly 2 and the static mold assembly 3 can be quickly molded, and as the injection is performed through the injection port 32, after the cooling system in the mold cools the injection molded part, the output end of the hydraulic cylinder 41 is opened for outward sliding, and at this time, the two rotating connecting rods 43 rotatably connected on the rotating connecting head 42 push the movable module 21 and the static module 31 to slide toward each other as the output end of the hydraulic cylinder 41 slides outward. The moving module 21 and the static module 31 slide opposite to each other along the double-track slide rail 1. Compared with the traditional mode in which the moving mold slides away from the static mold in one direction, the present invention greatly reduces the separation rate of the moving mold and the static mold through the driving mechanism 4, speeds up the demoulding time of the injection molded parts, and reduces the time interval between the production of two injection molded parts; after the injection molded parts are pushed by the demoulding pusher 23 for demoulding, if the gas sensor detects that a large amount of irritating gas flows in the middle cavity after the moving module 21 and the static module 31 are separated, the intelligent control terminal turns on the exhaust fan 82 so that the exhaust fan 82 absorbs the unpleasant gas and discharges it into the purification cylinder 84 through the air duct 85. Since activated carbon is placed in the purification cylinder 84, The column 9a can effectively absorb and purify the irritating gas, reducing the instantaneous emission of a large amount of irritating gas from the middle cavity after the moving module 21 and the static module 31 are separated, which not only improves the working environment of the workshop, but also improves the physical and mental health of the operators. When the moving mold and the static mold are separated, the static mold assembly 3 slides along the double-track slide rail 1 toward the mounting plate 6 under the drive of the driving mechanism 4, and the accordion exhaust pipe 52 is compressed by the back of the static module 31, so that the gas in the accordion exhaust pipe 52 is discharged through the honeycomb exhaust pipe head 51. On the one hand, the injection molded parts attached to the mold core 22 are subsequently cooled by air, and on the other hand, the dynamic module 21 and the static mold are improved. The fluidity of the gas in the middle cavity after separation by block 31, in conjunction with the induced draft fan 82 in the purification component 8, accelerates the purification rate of the gas in the middle cavity, and the gas purified by the activated carbon column 9a can be discharged back to the workshop through the exhaust hole 87, thereby enhancing the fluidity of the gas in the workshop. Among them, after a certain period of use, the activated carbon column 9a opens the sealing cover 86. When the activated carbon column 9a is stored in the purification cylinder 84, the activated carbon column 9a pushes the compression ring 91 and compresses the spring 92. Therefore, after the sealing cover 86 is opened, the activated carbon column 9a can be compressed by the spring 92 and bounced out through the pressure ring 91, so that the staff can quickly take out the activated carbon column 9a, making the replacement of the activated carbon column 9a more convenient.

[0043] The above descriptions are merely embodiments of the present invention and are not intended to limit the patent scope of the present invention. Any equivalent structure or equivalent process transformation made using the contents of the present invention specification and drawings, or directly or indirectly applied in other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. An injection mold for intelligent manufacturing, comprising a double-track slide rail (1) and a driving mechanism (4), wherein two groups of symmetrically distributed and slidably connected sliding blocks are installed on the double-track slide rail (1), and a movable mold assembly (2) and a static mold assembly (3) are fixedly mounted on the two groups of sliding blocks, respectively, and characterized in that: The two output ends of the driving mechanism (4) are respectively connected to the movable mold assembly (2) and the static mold assembly (3). The driving mechanism (4) enables the movable mold assembly (2) and the static mold assembly (3) to slide toward and away from each other along the double-track slide rail (1) to shorten the injection molding and demoulding time of the injection molded parts. The driving mechanism (4) comprises a hydraulic cylinder (41), a rotating connector (42), a rotating connecting rod (43) and a connecting column (44). The output end of the hydraulic cylinder (41) is fixedly welded with a rotating connector (42), and two rotating connecting rods (43) are sleeved on the rotating connector (42). The two rotating connecting rods (43) have the same specifications, and the other ends of the two rotating connecting rods (43) are both rotatably mounted with connecting columns (44), one of which is fixedly connected to the connecting end at the top of the movable module (21) in the movable mold assembly (2), and the other of which is fixedly connected to the connecting end at the top of the static module (31) in the static mold assembly (3); Both ends of the double-track slide rail (1) are fixedly mounted with mounting plates (6); a purification component (8) is mounted on the mounting plate (6) close to the movable mold assembly (2); and the injection molded parts made of impure resin materials are subjected to odor purification treatment by the purification component (8); and a degassing component (5) is mounted on the mounting plate (6) close to the static mold assembly (3); and the degassing component (5) is used to improve the fluidity of the pores between the movable mold assembly (21) and the static mold assembly (31); The purification assembly (8) comprises a mounting base (81), an induced ventilator (82), a mounting frame (83), a purification cylinder (84), an air guide pipe (85), a sealing cover (86) and an exhaust hole (87); a row of induced ventilator (82) distributed evenly is mounted on the mounting base (81), and the air inlet of the induced ventilator (82) faces downward; the mounting frame (83) is fixedly mounted on the mounting base (81), and a plurality of equidistantly distributed purification cylinders (84) are embedded in the mounting frame (83); the number of the purification cylinders (84) is equal to that of the induced ventilator (82), and the air inlet of the purification cylinder (84) is connected to the air outlet of the induced ventilator (82) through the air guide pipe (85); a plurality of evenly distributed exhaust holes (87) are opened on the cylinder wall at the rear of the purification cylinder (84), and a sealing cover (86) is inserted at the cylinder mouth at the rear of the purification cylinder (84); The mounting base plate (81) is fixedly mounted on the mounting plate (6) by means of screws, and the induced-air fan (82) mounted on the mounting base plate (81) corresponds to the mold core (22) on the moving module (21); The degassing assembly (5) comprises a honeycomb exhaust pipe head (51), an accordion exhaust pipe (52) and a connecting air port (53); a plurality of honeycomb exhaust pipe heads (51) of the same specification are embedded in the static module (31); the connecting air port (53) of each honeycomb exhaust pipe head (51) is fixedly connected to one end of an accordion exhaust pipe (52), and the other end of the honeycomb exhaust pipe head (51) is fixedly connected to the inner plate wall of the mounting plate (6) close to the static module (3); A plurality of the honeycomb exhaust pipe heads (51) are distributed in an annular manner around a molding cavity (33) opened by the static module (31), and an injection port (32) is installed in the middle of the molding cavity (33) opened by the static module (31), and the injection port (32) is communicated with the molding cavity (33); An activated carbon column (9a) for absorbing odor is inserted into each of the purification cylinders (84), and an external elastic member (9) for ejecting the activated carbon column (9a) is installed on the inner cylinder wall of each purification cylinder (84) near the air inlet; The external elastic member (9) comprises a pressure ring (91) and a spring (92); the pressure ring (91) is elastically connected to the inner cylinder wall of the purification cylinder (84) near the air inlet via the spring (92), and the outer ring surface of the pressure ring (91) abuts against the activated carbon column (9a).

2. The intelligent manufacturing injection mold according to claim 1, characterized in that: A demoulding pusher head (23) which is slidably connected is installed in the middle of the mold core (22) in the movable module (21), and the demoulding pusher head (23) is fixedly connected to the output end of the demoulding hydraulic cylinder.

3. The intelligent manufacturing injection mold according to claim 1, characterized in that: A demoulding net bag (7) is installed between the dynamic module (21) and the static module (31), and the demoulding net bag (7) is made of elastic pearlescent joint yarns woven vertically and horizontally.

4. The intelligent manufacturing injection mold according to claim 1, characterized in that: The hydraulic cylinder (41) in the driving mechanism (4) is fixedly embedded on the inner top wall of the workshop through a fixed mounting plate, and the double-track slide rail (1) is located on the workbench of the workshop.

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