Injection mold with high-efficiency cooling function

Abstract

The utility model discloses an injection mold with high -efficient cooling function, including first cooling mold, second cooling mold and butt joint seat, the side end of first cooling mold is equipped with second cooling mold, and the side end fixed of second cooling mold is equipped with butt joint seat, and the side end fixed of butt joint seat is equipped with push derivation link, and butt joint seat is connected with the sliding of support chassis, the rear end fixed connection of support chassis has the baffle, and the support of first cooling mold is carried out through the cooperation seat on the baffle, the structure of first cooling mold, second cooling mold is same, and the sleeve tray in first cooling mold is communicated with the mould through the flow guide pipe, and the mould is communicated with the shunt pipe, ring pipe, and is handled through the drainage pipe and exports, and the butt joint wind seat is communicated with the air channel through the tank body, and the air channel is annular, and the air channel of the other side is communicated with the exhaust seat through the tank body. The utility model discloses an injection mold with high -efficient cooling function, through the setting of structure, realizes the purpose of efficient cooling.

Description

Technical Field

[0001] This utility model relates to the field of injection mold equipment technology, specifically to an injection mold with a high-efficiency cooling function. Background Technology

[0002] Injection molding, also known as injection molding, is a molding method that combines injection and molding. The advantages of injection molding include high production speed and efficiency, automated operation, a wide variety of colors and shapes (from simple to complex), and sizes ranging from large to small. It also produces precise dimensions, facilitates product updates and replacements, and can create complex shapes. Injection molding is suitable for mass production and molding processes involving complex shapes.

[0003] However, injection molds currently have the following problems: they are not convenient for efficient cooling. Utility Model Content

[0004] The purpose of this invention is to provide an injection mold with a high-efficiency cooling function to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an injection mold with a high-efficiency cooling function, comprising a first cooling mold, a second cooling mold, and a docking seat, wherein the second cooling mold is provided on the side end of the first cooling mold, the docking seat is fixedly provided on the side end of the second cooling mold, a push rod is fixedly provided on the side end of the docking seat, the docking seat is slidably connected on a support base, and a partition is fixedly connected to the rear end of the support base, wherein the first cooling mold is supported on the partition by a mating seat;

[0006] The first cooling mold and the second cooling mold have the same structure. The sleeve inside the first cooling mold is connected to the mold through the guide pipe. The mold is connected to the diversion pipe and the annular pipe, and the exhaust is processed through the exhaust pipe. The connecting air seat and the air duct are connected through the groove. The air duct is arranged in an annular shape, and the air duct on the other side is connected to the exhaust seat through the groove.

[0007] Specifically, the first cooling mold includes a guide tube, a sleeve plate is provided on one side of the guide tube, and a drain pipe is provided at the lower end of the sleeve plate. The sleeve plate is connected to the distribution pipe through the guide tube and the mold. The longitudinal tube is used to wrap and cover the distribution pipe, and an annular tube is provided inside the longitudinal tube. The annular tube is connected to the distribution pipe. The distribution pipe and the annular tube are also connected to the drain pipe through the mold.

[0008] Specifically, the mold adopts a unidirectional guide, and the center of the mold is not through.

[0009] Specifically, the rear end of the guide tube has a cavity, and the side end of the guide tube has a connecting air seat. The connecting air seat is connected to the air duct, and the air duct is connected to the exhaust seat.

[0010] Specifically, the annular pipe and the air duct work together to dissipate heat from the cavity.

[0011] Specifically, the annular tube adopts a semi-circular design and is located inside the longitudinal tube. Heat is conducted through the longitudinal tube, and the annular tube is used for heat dissipation of the longitudinal tube.

[0012] Compared with the prior art, the beneficial effects of this utility model are:

[0013] 1. By installing a support base, the support base is fixed to the mating seat through a partition. The mating seat is used to support the first cooling mold. The push rod is fixed to the second cooling mold through a docking seat. The push rod, docking seat, and second cooling mold can be controlled by an external machine to move on the support base, thereby closing the first cooling mold and the second cooling mold for injection molding. The injection port is located at the side end of the second cooling mold.

[0014] 2. By installing the first cooling mold, the sleeve plate guides the liquid to the mold through the guide pipe, and then guides it to the longitudinal pipe and the annular pipe through the mold. The longitudinal pipe and the annular pipe guide the water flow through the bottom pipe to the lower end of the mold, and then guide it to the exhaust pipe through the mold and the groove in the guide pipe to carry out the annular cooling treatment, thereby heat dissipating heat around the cavity. At the same time, the connecting air seat can be connected to the external fan, so that the airflow is guided to the air duct through the connecting air seat and the ventilation groove in the guide pipe. The ventilation groove is connected to the air duct for annular wind power heat dissipation, and then connected to the exhaust air seat on the other side of the air duct for exhaust treatment. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the main structure of the present utility model;

[0016] Figure 2 This is a perspective view of the first cooling mold of this utility model;

[0017] Figure 3 This is a three-dimensional sectional view of the first cooling mold of this utility model.

[0018] In the diagram: 1-First cooling mold; 2-Second cooling mold; 3-Dating seat; 4-Push rod; 5-Support base frame; 6-Matching seat; 7-Partition plate; 8-Guide pipe; 9-Mold; 10-Diverter pipe; 11-Longitudinal pipe; 12-Sleeve disc; 13-Drain pipe; 14-Exhaust seat; 15-Cavity; 16-Air duct; 17-Annular pipe; 18-Dating seat. Detailed Implementation

[0019] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0020] Please see Figure 1-3 This utility model provides a technical solution: an injection mold with efficient cooling function, including a first cooling mold 1, a second cooling mold 2 and a docking seat 3. The second cooling mold 2 is provided on the side end of the first cooling mold 1, and the docking seat 3 is fixedly provided on the side end of the second cooling mold 2. A push rod 4 is fixedly provided on the side end of the docking seat 3. The docking seat 3 is slidably connected on the support base 5. A partition 7 is fixedly connected to the rear end of the support base 5. The first cooling mold 1 is supported on the partition 7 by a mating seat 6.

[0021] The first cooling mold 1 and the second cooling mold 2 have the same structure. The sleeve 12 inside the first cooling mold 1 is connected to the mold 9 through the guide pipe 8. The mold 9 is connected to the diversion pipe 10 and the annular pipe 17, and is drained through the drain pipe 13. The connecting air seat 18 is connected to the air duct 16 through the groove. The air duct 16 is arranged in an annular shape, and the air duct 16 on the other side is connected to the exhaust seat 14 through the groove. The support base 5 is installed and fixed to the mating seat 6 through the partition plate 7. The mating seat 6 is used to support the first cooling mold 1. The push rod 4 is fixed to the second cooling mold 2 through the connecting seat 3. The push rod 4, the connecting seat 3, and the second cooling mold 2 can be controlled by an external machine to move on the support base 5, thereby closing the first cooling mold 1 and the second cooling mold 2 for injection molding. The injection port is located at the side end of the second cooling mold 2.

[0022] The first cooling mold 1 includes a guide pipe 8, a sleeve 12 on one side of the guide pipe 8, and a drain pipe 13 at the lower end of the sleeve 12. The sleeve 12 is connected to the distribution pipe 10 through the guide pipe 8 and the mold 9. A longitudinal pipe 11 is used to wrap and cover the distribution pipe 10, and an annular pipe 17 is provided inside the longitudinal pipe 11. The annular pipe 17 is connected to the distribution pipe 10. The distribution pipe 10 and the annular pipe 17 are also connected to the drain pipe 13 through the mold 9. By installing the first cooling mold 1, the sleeve 12 guides the liquid to the mold 9 through the guide pipe 8, and then guides it to the longitudinal pipe 11 and the annular pipe 13 through the mold 9. On the shaped tube 17, the longitudinal tube 11 and the annular tube 17 guide the water flow through the bottom tube to the lower end of the mold 9, and then through the mold 9 and the groove in the guide tube 8 to the drain tube 13 for annular cooling treatment, thereby dissipating heat around the cavity 15. At the same time, the connecting air seat 18 can connect to the external fan, so that the airflow is guided to the air duct 16 through the connecting air seat 18 and the ventilation groove in the guide tube 8. The ventilation groove is connected to the air duct 16 for annular wind cooling, and then through the other side of the air duct 16 to the exhaust seat 14 for exhaust treatment.

[0023] Mold 9 uses unidirectional guidance, and the center of mold 9 is not through.

[0024] The rear end of the guide pipe 8 is provided with a cavity 15, and the side end of the guide pipe 8 is provided with a connecting air seat 18. The connecting air seat 18 is connected to the air duct 16, and the air duct 16 is connected to the exhaust seat 14.

[0025] The annular pipe 17 and the air duct 16 work together to dissipate heat from the cavity 15.

[0026] The annular tube 17 adopts a semi-circular design and is located inside the longitudinal tube 11. It conducts heat through the longitudinal tube 11 and is used for heat dissipation of the longitudinal tube 11.

[0027] Working principle: When needed, the user fixes the support base 5 to the mating seat 6 via the partition 7. The mating seat 6 supports the first cooling mold 1. The push rod 4 is fixed to the second cooling mold 2 via the docking seat 3. External machinery can control the movement of the push rod 4, docking seat 3, and second cooling mold 2 on the support base 5, thereby closing the first cooling mold 1 and the second cooling mold 2 for injection molding. The injection port is located at the side end of the second cooling mold 2. By installing the first cooling mold 1, the sleeve 12 guides the liquid to the mold 9 via the guide pipe 8, and then through the mold 9... The water is guided to the longitudinal pipe 11 and the annular pipe 17. The longitudinal pipe 11 and the annular pipe 17 guide the water flow through the bottom pipe to the lower end of the mold 9. Then, it is guided through the mold 9 and the groove in the guide pipe 8 to the drain pipe 13 for annular cooling treatment, thereby dissipating heat around the cavity 15. At the same time, the connecting air seat 18 can connect to an external fan, so that the airflow is guided through the connecting air seat 18 and the ventilation groove in the guide pipe 8 to the air duct 16. The ventilation groove is connected to the air duct 16 for annular wind cooling. Then, it is connected to the exhaust seat 14 on the other side of the air duct 16 for exhaust treatment, thus completing the work.

[0028] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An injection mold with efficient cooling function, characterized in that: It includes a first cooling mold (1), a second cooling mold (2) and a docking seat (3). The second cooling mold (2) is provided on the side of the first cooling mold (1). The docking seat (3) is fixedly provided on the side of the second cooling mold (2). The push rod (4) is fixedly provided on the side of the docking seat (3). The docking seat (3) is slidably connected on the support base (5). The rear end of the support base (5) is fixedly connected to a partition plate (7). The first cooling mold (1) is supported on the partition plate (7) by a mating seat (6). The first cooling mold (1) and the second cooling mold (2) have the same structure. The sleeve plate (12) inside the first cooling mold (1) is connected to the mold (9) through the guide pipe (8). The mold (9) is connected to the diversion pipe (10) and the annular pipe (17) and is drained through the drain pipe (13). The connecting air seat (18) is connected to the air duct (16) through the groove. The air duct (16) is arranged in an annular shape, and the air duct (16) on the other side is connected to the exhaust seat (14) through the groove.

2. The injection mold with high-efficiency cooling function according to claim 1, characterized in that: The first cooling mold (1) includes a guide pipe (8), a sleeve (12) is provided on one side of the guide pipe (8), and a drain pipe (13) is provided at the lower end of the sleeve (12). The sleeve (12) is connected to the diversion pipe (10) through the guide pipe (8) and the mold (9). The longitudinal pipe (11) is used to wrap and cover the diversion pipe (10), and an annular pipe (17) is provided inside the longitudinal pipe (11). The annular pipe (17) is connected to the diversion pipe (10). The diversion pipe (10) and the annular pipe (17) are also connected to the drain pipe (13) through the mold (9).

3. The injection mold with high-efficiency cooling function according to claim 2, characterized in that: The mold (9) adopts a unidirectional guide and the center of the mold (9) is not through.

4. The injection mold with high-efficiency cooling function according to claim 3, characterized in that: The rear end of the guide pipe (8) is provided with a cavity (15), and the side end of the guide pipe (8) is provided with a connecting air seat (18). The connecting air seat (18) is connected to the air duct (16), and the air duct (16) is connected to the exhaust seat (14).

5. An injection mold with high-efficiency cooling function according to claim 4, characterized in that: The annular pipe (17) and the air duct (16) work together to dissipate heat from the cavity (15).

6. The injection mold with high-efficiency cooling function according to claim 5, characterized in that: The annular tube (17) adopts a semi-circular design and is located inside the longitudinal tube (11). Heat is conducted through the longitudinal tube (11), and the annular tube (17) is used for heat dissipation of the longitudinal tube (11).

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