A rubber sleeve injection mold for the production of automotive engine ignition coils

Abstract

The present invention discloses a rubber sleeve injection mold for the production of automotive engine ignition coils, and the present invention relates to the technical field of injection molds. It includes: a hydraulic component, the output end of the hydraulic component is fixedly connected with a pressing plate; an upper mold component, a lower mold component, the top of the lower mold component is fixedly connected with the limit column of the hydraulic component, the lower mold component includes an air-cooling component, the outer wall of the top of the air-cooling component is fixedly connected with the limit column of the hydraulic component, the top of the air-cooling component is fixedly connected with an installation component, and the inner wall of the top of the installation component is fixedly connected with a water-cooling component. By arranging the water-cooling component in this injection mold, water in the water tank is introduced through the water inlet pipe, the coolant flows in the water storage shell, flows out from the water outlet nozzle after heat exchange with the rubber sleeve cavity, and completes the water-cooling cycle. The through grooves in the cooling plate wall increase the contact area between the coolant and the rubber sleeve cavity, and this injection mold achieves the purpose of the rubber sleeve injection mold for the production of automotive engine ignition coils.

Description

Technical Field

[0001] The invention relates to the technical field of injection moulds, in particular to a rubber sleeve injection mould for producing an ignition coil of an automobile engine. Background Art

[0002] In the manufacturing of automobile engine ignition coils, the rubber sleeve is a key component, and its molding quality and production efficiency have a vital impact on the performance of the ignition coil and the overall production efficiency. However, there are currently many problems that need to be solved in the field of rubber sleeve injection molds.

[0003] First, in the cooling process, the traditional cooling method is inefficient. Many molds only use a single cooling method, either air cooling or water cooling, and fail to fully utilize the advantages of the synergy between the two. For example, simple air cooling is difficult to deeply reduce the temperature inside the rubber sleeve, and single water cooling has limitations in the heat exchange efficiency between the coolant and the rubber sleeve cavity, resulting in a long cooling time for the rubber sleeve, a longer production cycle, and a lowered production efficiency. This not only increases production costs, but also makes it difficult to meet the market's demand for rapid product delivery. Summary of the invention

[0004] 1. Technical issues to be resolved

[0005] In view of the deficiencies in the prior art, the present invention provides a rubber sleeve injection mold for the production of automobile engine ignition coils, which solves the problem of being able to more fully absorb the heat emitted by the rubber sleeve raw material, accelerate the cooling process, further ensure the rapid cooling and solidification of the rubber sleeve raw material, and shorten the production cycle.

[0006] (II) Technical solution

[0007] To achieve the above object, the present invention is realized through the following technical solutions: A rubber sleeve injection mold for the production of an automotive engine ignition coil, comprising: a hydraulic component, the output end of the hydraulic component is fixedly connected with a pressing plate; an upper mold component, the inner wall of the upper mold component is slidably connected with the limit posts of the hydraulic component, the hydraulic component includes a hydraulic cylinder, a telescopic rod, four groups of limit posts and a fixing plate, and the upper mold component is used to press down the injected rubber sleeve raw material in a sliding manner; a lower mold component, the top of the lower mold component is fixedly connected with the limit posts of the hydraulic component, the lower mold component is used to reduce the temperature of the rubber sleeve raw material through heat exchange, the lower mold component includes an air-cooling component, the outer wall of the top of the air-cooling component is fixedly connected with the limit posts of the hydraulic component, the air-cooling component is used to accelerate the air flow rate to assist in cooling the rubber sleeve raw material, the top of the air-cooling component is fixedly connected with a mounting component, the mounting component is used to mount rubber sleeve cavities of different sizes, and the inner wall of the top of the mounting component is fixedly connected with a water-cooling component, the water-cooling component is used to conduct heat exchange with the rubber sleeve cavity through a liquid; the upper mold component includes an upper mold body, the bottom of the upper mold body is fixedly connected with rubber sleeve columns, and the rubber sleeve columns are linearly arranged along the outer wall of the upper mold body, the inner wall of the upper mold body is fixedly connected with a rubber injection pipe, and the corners around the upper mold body are fixedly connected with top springs; the water-cooling component includes a water storage shell, the inner walls on both sides of the water storage shell are fixedly connected with connecting plates, the bottom of the water storage shell is fixedly connected with a water outlet nozzle, the cross-section of the water outlet nozzle is downwardly tapered, and the water outlet nozzles are linearly arranged along the outer wall of the water storage shell, and a water inlet pipe is fixedly connected to the inner wall of the water storage shell.

[0008] Preferably, the bottom of the upper mold body is fixedly connected with a sealing ring, and the sealing rings are linearly arranged along the outer wall of the upper mold body, and the sealing rings are used to prevent the leakage of the rubber sleeve raw material when pressed together with the lower mold component; the side of the top spring away from the upper mold body is fixedly connected with the bottom of the pressing plate, the bottom of the pressing plate is in contact with the top of the upper mold body, the inner walls around the upper mold body are slidably connected with the limit posts of the hydraulic component, and through grooves corresponding to the limit posts are opened in the inner walls around the upper mold body.

[0009] Preferably, the outer walls on both sides of the connecting plate are fixedly connected with cooling plates, and the cooling plates are linearly arranged along the outer wall of the cooling plate, the material of the cooling plate is a heat-conducting material, through grooves are opened in the wall of the cooling plate, and the through grooves are linearly arranged along the outer wall of the cooling plate, and the outer wall of the cooling plate is fixedly connected with the inner wall of the water storage shell.

[0010] Preferably, the installation component includes a lower die body. An installation block is fixedly installed on the inner wall of the lower die body through an installation groove, and the installation grooves are linearly arranged in an array along the outer wall of the lower die body. A coolant is injected into the installation grooves. An outer wall of the installation block is fixedly connected to a rubber sleeve shell, and the rubber sleeve shell is immersed in the coolant. The top of the lower die body is press-fitted and sealed with the bottom of the upper die body, and the top of the rubber sleeve shell is press-fitted and sealed with the bottom of the sealing ring.

[0011] Preferably, the air-cooling component includes a water tank. An air inlet shell is fixedly connected to the outer wall of the water tank. A fan component is fixedly connected to the inner wall of the bottom of the air inlet shell. An air collecting shell is fixedly connected to a side of the air inlet shell close to the water tank. There are two groups of the air collecting shells, and a main air duct is fixedly connected to the outer wall of each group of the air collecting shells. An air blowing conical pipe is connected to the inner wall of the main air duct through a pipe, and the air blowing conical pipes are linearly arranged in an array along the outer wall of the water tank.

[0012] Preferably, the top of the water tank is fixedly connected to the bottom of the lower die body, the bottom of the lower die body is fixedly connected to the top of the air blowing conical pipe, a connecting pipe is fixedly connected to the inner wall of the outer wall of the air blowing conical pipe, the air blowing conical pipes are communicated with each other through the connecting pipe, air holes are formed in the inner wall of the bottom of the air blowing conical pipe, and the air holes are arranged in an annular array along the central axis of the air blowing conical pipe.

[0013] Preferably, a water pump is fixedly connected to the inner wall of the bottom of the water tank. The water pump is fixedly connected to the water tank through a fixing frame. A pump water pipe is fixedly connected to the water outlet end of the water pump. The outer wall of the pump water pipe is fixedly connected to the inner wall of the water tank. A water injection pipe is fixedly connected to the inner wall of the top of the water tank. The top of the pump water pipe is fixedly connected to one end of the water inlet pipe away from the water storage shell. An air outlet groove is formed in the top wall of the water tank. The air blowing conical pipe is located outside the water outlet nozzle. The top of the water tank is fixedly connected to the limit post of the hydraulic component.

[0014] (III) Beneficial effects

[0015] The present invention provides a rubber sleeve injection mold for the production of an automotive engine ignition coil. The following beneficial effects are achieved:

[0016] (I). For the rubber sleeve injection mold for the production of an automotive engine ignition coil, by setting the water-cooling component, with the water storage shell as the main body, water in the water tank is introduced through the water inlet pipe. The coolant flows in the water storage shell, exchanges heat with the rubber sleeve cavity, and then flows out from the water outlet nozzle to complete the water-cooling cycle. The through grooves in the cooling plate wall increase the contact area between the coolant and the rubber sleeve cavity. According to the principle of heat transfer, the heat dissipated by the rubber sleeve raw material can be absorbed more fully, accelerating the cooling process. The water-cooling component and the air-cooling component complement each other, further ensuring the rapid cooling and solidification of the rubber sleeve raw material and shortening the production cycle.

[0017] (2) The rubber sleeve injection mold for manufacturing automotive engine ignition coils is composed of a lower die body, an installation groove, an installation block, and a rubber sleeve shell through the installation component. Through a specific threaded connection method, different specifications of installation blocks and rubber sleeve shells can be flexibly replaced according to the requirements of rubber sleeve cavities of different sizes, enhancing the versatility of the mold. This enables a set of molds to adapt to the production of multiple different specifications of rubber sleeves, reducing the cost for enterprises to purchase multiple sets of molds for different products, and improving the usage efficiency of the mold and the flexibility of production.

[0018] (3) The rubber sleeve injection mold for manufacturing automotive engine ignition coils is equipped with an air-cooling component. The blowing cone tube in the air-cooling component is located outside the water outlet nozzle. It can not only air-cool the rubber sleeve raw material but also cool the downward-flowing water when the water outlet nozzle discharges water, and further air-cool the circulating water in the water tank for auxiliary cooling. This design optimizes the cooling system, improves the utilization rate of water resources, reduces energy consumption, and achieves a certain degree of energy-saving effect.

[0019] (4) The rubber sleeve injection mold for manufacturing automotive engine ignition coils is equipped with an air-cooling component. The blowing cone tube is located outside the water outlet nozzle. It not only air-cools the rubber sleeve raw material but also cools the downward-flowing water when the water outlet nozzle discharges water, and further air-cools the circulating water in the water tank for auxiliary cooling. This unique design optimizes the cooling system, enables the circulating water to obtain additional air-cooling during the water-cooling cycle, improves the utilization rate of water resources, and reduces energy consumption. Since the circulating water at a lower temperature can more effectively absorb the heat of the rubber sleeve raw material, the energy consumption of equipment such as water pumps is reduced to a certain extent, achieving an energy-saving effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic structural diagram of the whole invention;

[0021] Figure 2 It is a cross-sectional view of the lower die component of the invention;

[0022] Figure 3 It is a schematic structural diagram of the upper die component of the invention;

[0023] Figure 4 It is an exploded structural diagram of the installation component of the invention;

[0024] Figure 5 It is an exploded structural diagram of the water-cooling component of the invention;

[0025] Figure 6 It is a schematic structural diagram of the connecting plate of the invention;

[0026] Figure 7 It is an exploded structural diagram of the air-cooling component of the invention;

[0027] Figure 8 This is a schematic exploded view of the blowing conical tube of the present invention.

[0028] In the figure: 1, hydraulic component; 2, pressing plate; 3, upper die component; 4, lower die component; 5, mounting assembly; 6, water cooling assembly; 7, air cooling assembly; 61, water storage shell; 62, water inlet pipe; 63, connecting plate; 64, water outlet nozzle; 65, cooling plate; 66, through groove; 71, air inlet shell; 72, fan assembly; 73, air outlet groove; 74, air collecting shell; 75, main air duct; 76, water tank; 77, connecting pipe; 78, water pump; 79, pump water pipe; 710, water injection pipe; 711, blowing conical tube; 712, air hole; 31, upper die body; 32, top spring; 33, glue injection pipe; 34, rubber sleeve column; 35, sealing ring; 51, lower die body; 52, mounting groove; 54, rubber sleeve shell; 55, mounting block. Detailed implementation manners

[0029] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.

[0030] Please refer to Figure 1-8, the present invention provides a technical solution: a rubber sleeve injection mold for the production of an automotive engine ignition coil, comprising: a hydraulic component 1, the output end of the hydraulic component 1 is fixedly connected with a pressing plate 2; an upper mold component 3, the inner wall of the upper mold component 3 is slidably connected with the limit column of the hydraulic component 1, and the upper mold component 3 is used to press down the injected rubber sleeve raw material by sliding; a lower mold component 4, the top of the lower mold component 4 is fixedly connected with the limit column of the hydraulic component 1, and the lower mold component 4 is used to reduce the temperature of the rubber sleeve raw material through heat exchange. The lower mold component 4 includes an air-cooling component 7, the outer wall of the top of the air-cooling component 7 is fixedly connected with the limit column of the hydraulic component 1, and the air-cooling component 7 is used to accelerate the air flow rate to assist in cooling the rubber sleeve raw material. The top of the air-cooling component 7 is fixedly connected with a mounting component 5, and the mounting component 5 is used to mount rubber sleeve cavities of different sizes. The inner wall of the top of the mounting component 5 is fixedly connected with a water-cooling component 6, and the water-cooling component 6 is used to perform heat exchange with the rubber sleeve cavity through a liquid; the upper mold component 3 includes an upper mold body 31, the bottom of the upper mold body 31 is fixedly connected with rubber sleeve columns 34, and the rubber sleeve columns 34 are linearly arranged along the outer wall of the upper mold body 31. The inner wall of the upper mold body 31 is fixedly connected with a rubber injection pipe 33. Inside the inner wall of the upper mold body 31, the rubber injection pipe 33 is connected. When the rubber sleeve raw material enters the rubber injection pipe 33 under the action of external pressure, the rubber sleeve raw material is pushed by the pressure difference and injected into the mold cavity from the rubber injection pipe 33. At the corners around the upper mold body 31, top springs 32 are fixedly connected; the water-cooling component 6 includes a water storage shell 61, the inner walls on both sides of the water storage shell 61 are fixedly connected with connecting plates 63, the bottom of the water storage shell 61 is fixedly connected with water outlet nozzles 64, and the water outlet nozzles 64 are linearly arranged along the outer wall of the water storage shell 61. The inner wall of the water storage shell 61 is fixedly connected with a water inlet pipe 62.

[0031] A sealing ring 35 is fixedly connected to the bottom of the upper mold body 31, and the sealing ring 35 is linearly arranged along the outer wall of the upper mold body 31. The sealing ring 35 forms a sealing structure between the two, and uses the elastic deformation of materials such as rubber to fill possible gaps to prevent the rubber sleeve raw material from leaking during the high-pressure injection process. The sealing ring 35 is used to seal when pressed against the lower mold component 4 to prevent the rubber sleeve raw material from leaking; one side of the top spring 32 away from the upper mold body 31 is fixedly connected to the bottom of the pressing plate 2, the bottom of the pressing plate 2 is in contact with the top of the upper mold body 31, and the inner walls around the upper mold body 31 are slidably connected with the limit columns of the hydraulic component 1.

[0032] Cooling plates 65 are fixedly connected to the outer walls on both sides of the connecting plate 63, and the cooling plates 65 are linearly arranged along the outer wall of the cooling plate 65. Through grooves 66 are formed in the walls of the cooling plates 65. The design of the through grooves 66 increases the contact area between the cooling liquid and the rubber sleeve cavity. According to the principle of heat transfer, a larger contact area can improve the heat exchange efficiency, enabling the cooling liquid to more fully absorb the heat dissipated by the rubber sleeve raw material. Moreover, the through grooves 66 are linearly arranged along the outer wall of the cooling plate 65, and the outer wall of the cooling plate 65 is fixedly connected to the inner wall of the water storage shell 61.

[0033] The mounting assembly 5 includes a lower die body 51. An installation block 55 is fixedly installed on the inner wall of the lower die body 51 through an installation groove 52, and the installation grooves 52 are linearly arrayed along the outer wall of the lower die body 51. A coolant is injected into the installation grooves 52. An outer wall of the installation block 55 is fixedly connected to a rubber sleeve housing 54. The top of the lower die body 51 is press-fitted and sealed with the bottom of the upper die body 31, and the top of the rubber sleeve housing 54 is press-fitted and sealed with the bottom of the sealing ring 35.

[0034] The air-cooling assembly 7 includes a water tank 76. An air inlet housing 71 is fixedly connected to the outer wall of the water tank 76. A fan assembly 72 is fixedly connected to the inner wall of the bottom of the air inlet housing 71. An air collecting housing 74 is fixedly connected to one side of the air inlet housing 71 close to the water tank 76. There are two groups of the air collecting housings 74, and a main air duct 75 is fixedly connected to the outer wall of each group of air collecting housings 74. An air blowing tapered pipe 711 is connected to the inner wall of the main air duct 75 through a pipe, and the air blowing tapered pipes 711 are linearly arrayed along the outer wall of the water tank 76. The top of the water tank 76 is fixedly connected to the bottom of the lower die body 51, and the bottom of the lower die body 51 is fixedly connected to the top of the air blowing tapered pipe 711. A connecting pipe 77 is fixedly connected to the inner wall of the outer wall of the air blowing tapered pipe 711. Air holes 712 are formed in the inner wall of the bottom of the air blowing tapered pipe 711. The special shape of the air blowing tapered pipe 711 causes the flow rate of air to gradually increase when flowing in the pipe, and finally blows out from the air holes 712 arrayed in a ring shape on the inner wall of its bottom, taking away heat, realizing air-cooling auxiliary cooling of the rubber sleeve raw material, and the air holes 712 are arrayed in a ring shape along the central axis of the air blowing tapered pipe 711. A water pump 78 is fixedly connected to the inner wall of the bottom of the water tank 76. A pump water pipe 79 is fixedly connected to the water outlet end of the water pump 78, and the outer wall of the pump water pipe 79 is fixedly connected to the inner wall of the water tank 76. A water injection pipe 710 is fixedly connected to the inner wall of the top of the water tank 76. The top of the pump water pipe 79 is fixedly connected to one end of the water inlet pipe 62 far away from the water storage housing 61. After being powered on, the fan blades rotate. According to Bernoulli's principle, the rotation of the blades generates a pressure difference in the air, thereby sucking external air into the air inlet housing 71. An air outlet groove 73 is formed in the top wall of the water tank 76. The air blowing tapered pipe 711 is located outside the water outlet nozzle 64. The top of the water tank 76 is fixedly connected to the limit post of the hydraulic component 1.

[0035] As the power source of the entire mold, the hydraulic component 1 transmits pressure through the internal hydraulic oil according to Pascal's principle, generating a stable and controllable thrust. Its output end is firmly fixed to the pressing plate 2. When the mold starts to work, the internal pressure of the hydraulic component 1 changes, pushing the pressing plate 2 to generate a corresponding displacement.

[0036] The upper die component 3 is slidably connected to the limit posts of the hydraulic component 1 through its outer wall, and smoothly slides downward along the limit posts under the push of the pressure plate 2. The core of the upper die component 3 is the upper die body 31. Inside the inner wall of the upper die body 31, a glue injection tube 33 is connected. When the rubber sleeve raw material enters the glue injection tube 33 under the action of external pressure, the rubber sleeve raw material is injected into the mold cavity from the glue injection tube 33 under the push of the pressure difference.

[0037] As the upper die body 31 descends, the rubber sleeve columns 34 arranged in a linear array at its bottom start to play a role. The rubber sleeve columns 34 are adapted to the internal structure of the rubber sleeve. During the process of pressing the rubber sleeve raw material, the shape fit is used to position the rubber sleeve raw material, ensuring the accuracy of the internal structure of the rubber sleeve during the forming process. At the same time, pressure is applied to the rubber sleeve raw material to assist its preliminary forming.

[0038] At the corners around the upper die body 31, top springs 32 are connected. According to Hooke's law, the top springs 32 play a role in buffering and resetting during the mold opening and closing process. When the hydraulic component 1 pushes the upper die component 3 downward, the top springs 32 are compressed, storing elastic potential energy, relieving the impact force during the downward movement of the upper die component 3, and ensuring the smoothness of the movement. When the mold is opened, the top springs 32 release the stored elastic potential energy to help the upper die component 3 quickly reset to the initial position.

[0039] In addition, a sealing ring 35 arranged in a linear array is also fixedly connected to the bottom of the upper die body 31. When the mold is closed, the upper die body 31 and the lower die component 4 approach each other and finally press together. The sealing ring 35 forms a sealing structure between the two, using the elastic deformation of materials such as rubber to fill the possible gaps and prevent the rubber sleeve raw material from leaking during the high-pressure injection process.

[0040] The top of the lower die component 4 is fixedly connected to the limit posts of the hydraulic component 1, and is mainly responsible for cooling the rubber sleeve raw material to promote its solidification and forming. The lower die component 4 includes an air-cooling component 7, a mounting component 5, and a water-cooling component 6, and each component works together to achieve efficient cooling.

[0041] The top of the air-cooling component 7 is also fixedly connected to the limit posts of the hydraulic component 1. Its work is based on the principle that heat is carried away by air flow. The main body of the air-cooling component 7 is a water tank 76. The outer wall of the water tank 76 is connected to an air inlet shell 71. A fan assembly 72 is installed on the inner wall of the bottom of the air inlet shell 71. After being powered on, the fan blades rotate. According to Bernoulli's principle, the rotation of the blades causes a pressure difference in the air, thereby sucking external air into the air inlet shell 71.

[0042] The air entering the air inlet housing 71 is guided to two groups of air collecting housings 74 near one side of the water tank 76. The air collecting housings 74 play a role in gathering and guiding the air flow, collecting the scattered air. Subsequently, the air is conveyed through the main air duct 75 connected to the outer wall of the air collecting housing 74 to the blowing cone pipes 711 arranged in a linear array along the outer wall of the water tank 76. The blowing cone pipes 711 are connected by connecting pipes 77. The special shape of the blowing cone pipes 711 causes the air flow rate to gradually increase when flowing inside the pipes, and finally blows out from the air holes 712 arranged in an annular array on the inner wall of its bottom, taking away heat and realizing the air-cooling assisted cooling of the rubber sleeve raw material.

[0043] The mounting component 5 connected to the top of the air-cooling component 7 is composed of a lower die body 51, mounting grooves 52, mounting blocks 55 and a rubber sleeve housing 54. The inner wall of the lower die body 51 is provided with mounting grooves 52 arranged in a linear array. The design of the mounting grooves 52 enables the mounting blocks 55 to be firmly fixed therein through a specific threaded connection method. The outer wall of the mounting blocks 55 is connected to the rubber sleeve housing 54. This structural design enables the mounting component 5 to be flexibly mounted according to the requirements of rubber sleeve cavities of different sizes by replacing mounting blocks 55 and rubber sleeve housings 54 of different specifications, greatly enhancing the versatility of the mold.

[0044] Meanwhile, the mounting grooves 52 are filled with a coolant. The coolant in the mounting grooves 52 exchanges heat with the rubber sleeve housing 54 through heat conduction to assist in cooling the rubber sleeve raw material inside the rubber sleeve housing 54. The top of the lower die body 51 is press-fitted and sealed with the bottom of the upper die body 31, and the top of the rubber sleeve housing 54 is press-fitted and sealed with the bottom of the sealing ring 35 to ensure the sealing performance inside the mold during the cooling process, prevent the leakage of the coolant and the overflow of the rubber sleeve raw material, and ensure the stability and reliability of the cooling process.

[0045] The water-cooling component 6 connected to the inner wall of the top of the mounting component 5 has a water storage housing 61 as the main structure. The two inner walls of the water storage housing 61 are connected with connecting plates 63, and the two outer walls of the connecting plates 63 are further connected with cooling plates 65. Through grooves 66 are opened in the walls of the cooling plates 65. The design of the through grooves 66 increases the contact area between the coolant and the rubber sleeve cavity. According to the principle of heat transfer, a larger contact area can improve the heat exchange efficiency, enabling the coolant to more fully absorb the heat dissipated by the rubber sleeve raw material.

[0046] The inner wall of the water storage shell 61 is connected to the water inlet pipe 62, and the bottom is connected to the water outlet nozzles 64 arranged in a linear array. For the water pump 78 on the inner wall of the bottom of the water tank 76, first, cooling water needs to be injected into the water tank 76 through the water injection pipe 710. It should be noted that the cooling water needs to be below the air outlet groove 73 and should not exceed the air outlet groove 73. Based on the principle of centrifugal force, when the impeller of the water pump 78 rotates, the liquid at the center of the impeller is thrown to the surroundings, forming a low-pressure area. The water in the water tank 76 is sucked into the center of the impeller, and then the water is transported to the water inlet pipe 62 through the pump water pipe 79. The coolant flows in the water storage shell 61, exchanges heat with the rubber sleeve cavity, and then flows out from the water outlet nozzle 64, completing a water cooling cycle, continuously taking away the heat of the rubber sleeve raw material and accelerating its cooling and forming.

[0047] Moreover, the blowing cone pipe 711 in the air cooling component 7 is located outside the water outlet nozzle 64 and wraps the water outlet nozzle 64. When the water outlet nozzle 64 is discharging water, high-speed airflows continuously blown out through the air holes 712 at the bottom of the blowing cone pipe 711 are used to cool the downward flowing water. The continuously downward blowing high-speed airflows continue to blow downward, further performing air cooling on the circulating water in the water tank 76, assisting the circulating water in the water tank 76 in the cooling work. The air after cooling the circulating water is discharged through the air outlet groove 73.

[0048] It should be noted that in this article, relational terms such as first and second are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the term "comprising", "including" or any other variant thereof is intended to cover non-exclusive inclusion, so that a process, method, article or device comprising a series of elements not only includes those elements, but also includes other elements not expressly listed, or also includes elements inherent to such process, method, article or device. Without further limitations, an element defined by the statement "comprising a..." does not exclude the existence of additional identical elements in the process, method, article or device comprising the said element.

[0049] Although the embodiments of the present invention have been shown and described, it will be understood by those of ordinary skill in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A rubber sleeve injection mold for the production of automobile engine ignition coils, characterized in that: include: A hydraulic component (1), wherein an output end of the hydraulic component (1) is fixedly connected to a pressure plate (2); An upper mold component (3), the inner wall of the upper mold component (3) being slidably connected to the limiting column of the hydraulic component (1), and the upper mold component (3) being used to press the injected rubber sleeve raw material downward by sliding; A lower mold component (4), the top of the lower mold component (4) is fixedly connected to the limiting column of the hydraulic component (1), the lower mold component (4) is used to reduce the temperature of the rubber sleeve raw material through heat exchange, the lower mold component (4) comprises an air cooling component (7), the outer wall of the top of the air cooling component (7) is fixedly connected to the limiting column of the hydraulic component (1), the air cooling component (7) is used to increase the air flow rate to assist in cooling the rubber sleeve raw material, the top of the air cooling component (7) is fixedly connected to a mounting component (5), the mounting component (5) is used to install rubber sleeve cavities of different sizes, the inner wall of the top of the mounting component (5) is fixedly connected to a water cooling component (6), the water cooling component (6) is used to perform heat exchange with the rubber sleeve cavity through liquid; The water cooling assembly (6) comprises a water storage shell (61), the inner walls on both sides of the water storage shell (61) are fixedly connected to connecting plates (63), the bottom of the water storage shell (61) is fixedly connected to water outlets (64), and the water outlets (64) are arranged in a linear array along the outer wall of the water storage shell (61), and the inner wall of the water storage shell (61) is fixedly connected to a water inlet pipe (62); The air cooling assembly (7) comprises a water tank (76), the outer wall of the water tank (76) is fixedly connected to an air inlet shell (71), the inner wall of the bottom of the air inlet shell (71) is fixedly connected to a fan assembly (72), the air inlet shell (71) is fixedly connected to an air collecting shell (74) on one side close to the water tank (76), two groups of air collecting shells (74) are provided, and the outer wall of each group of air collecting shells (74) is fixedly connected to a main air duct (75), the inner wall of the main air duct (75) is connected to a blowing cone tube (711) via a pipeline, and the blowing cone tube (711) is connected along The outer wall of the water tank (76) is arranged in a linear array, the blowing cone tube (711) is located outside the water outlet nozzle (64), the top of the water tank (76) is fixedly connected to the bottom of the lower mold body (51), the bottom of the lower mold body (51) is fixedly connected to the top of the blowing cone tube (711), the outer wall and the inner wall of the blowing cone tube (711) are fixedly connected with a connecting pipe (77), the inner wall of the bottom of the blowing cone tube (711) is provided with air holes (712), and the air holes (712) are arranged in a circular array along the central axis of the blowing cone tube (711).

2. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 1, characterized in that: The outer walls on both sides of the connecting plate (63) are fixedly connected with cooling plates (65), and the cooling plates (65) are arranged in a linear array along the outer walls of the cooling plates (65); through grooves (66) are provided in the walls of the cooling plates (65), and the through grooves (66) are arranged in a linear array along the outer walls of the cooling plates (65); the outer walls of the cooling plates (65) are fixedly connected to the inner walls of the water storage shell (61).

3. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 1, characterized in that: The upper mold component (3) comprises an upper mold body (31), the bottom of the upper mold body (31) is fixedly connected to a rubber sleeve column (34), and the rubber sleeve column (34) is arranged in a linear array along the outer wall of the upper mold body (31), the inner wall of the upper mold body (31) is fixedly connected to a rubber injection tube (33), and the corners around the upper mold body (31) are fixedly connected to top springs (32).

4. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 3, characterized in that: A sealing ring (35) is fixedly connected to the bottom of the upper mold body (31), and the sealing ring (35) is arranged in a linear array along the outer wall of the upper mold body (31). The sealing ring (35) is used to seal and prevent the rubber sleeve material from leaking when pressed with the lower mold component (4); the side of the top spring (32) away from the upper mold body (31) is fixedly connected to the bottom of the pressure plate (2), the bottom of the pressure plate (2) is in contact with the top of the upper mold body (31), and the inner walls around the upper mold body (31) are slidably connected to the limit columns of the hydraulic component (1).

5. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 1, characterized in that: The mounting assembly (5) comprises a lower mold body (51), the inner wall of the lower mold body (51) being fixedly mounted with a mounting block (55) via a mounting groove (52), and the mounting grooves (52) being arranged in a linear array along the outer wall of the lower mold body (51), a coolant being injected into the mounting grooves (52), and the outer wall of the mounting block (55) being fixedly connected with a rubber sleeve shell (54).

6. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 5, characterized in that: The top of the lower mold body (51) and the bottom of the upper mold body (31) are pressed and sealed, and the top of the rubber sleeve shell (54) and the bottom of the sealing ring (35) are pressed and sealed.

7. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 1, characterized in that: A water pump (78) is fixedly connected to the inner wall of the bottom of the water tank (76); a water outlet of the water pump (78) is fixedly connected to a water pump pipe (79); an outer wall of the water pump pipe (79) is fixedly connected to the inner wall of the water tank (76); and a water injection pipe (710) is fixedly connected to the inner wall of the top of the water tank (76).

8. The rubber sleeve injection mold for producing an automobile engine ignition coil according to claim 7, characterized in that: The top of the water pump pipe (79) is fixedly connected to an end of the water inlet pipe (62) away from the water storage shell (61), an air outlet slot (73) is provided in the wall of the top of the water tank (76), and the top of the water tank (76) is fixedly connected to the limit column of the hydraulic component (1).

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