Automatic vacuumizer
By designing an automatic vacuum pump, the use of synchronous belt lines and vacuum cavity for fully automated gas removal, the problem of tiny bubbles in the product affecting quality is solved, and the product quality and appearance is significantly improved.
Patent Information
- Application Number
- CN202421809219.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-07-29
- Publication Date
- 2025-05-16
- Estimated Expiration
- 2034-07-29
AI Technical Summary
In modern manufacturing, the tiny bubbles present in the product will reduce the appearance quality and performance of the product, affecting market competitiveness, and it is difficult for the existing technology to effectively remove these bubbles.
An automatic vacuum evacuation machine is designed, including a machine, a synchronous belt line, a vacuum cavity and a cavity pressure fixture assembly. The vehicle is conveyed through the synchronous belt line, and the vacuum operation is performed in the vacuum cavity. The cavity pressure fixture assembly is used to snap the vehicle to achieve fully automated gas removal.
This equipment can effectively remove tiny bubbles in epoxy resin, significantly improve product quality and appearance, and has become an indispensable and important equipment in modern manufacturing.
Smart Images

Figure CN222875113U_ABST
Abstract
Description
Technical field:
[0001] The utility model relates to an automatic vacuum pumping machine. Background technology:
[0002] In modern manufacturing, product quality is one of the key factors for corporate competition. For many products, such as LED epoxy resins and plastic products, the presence of bubbles will significantly reduce the appearance quality and performance of the product, thus affecting market competitiveness. In processes such as coating and infusion, in order to remove the gas in the material and avoid leaving gaps after the material is solidified, resulting in defective products, it can also improve the density of the material and improve the structural and performance of the product. Vacuuming is an indispensable and important equipment in modern manufacturing. Utility model content:
[0003] In view of the above-mentioned problems in the prior art, the purpose of the utility model is to provide an automatic vacuum pump to help achieve fully automated operations, which can completely remove tiny bubbles in epoxy resin and significantly improve product quality and appearance.
[0004] In order to achieve the above purpose, the utility model adopts the following technical solutions:
[0005] An automatic vacuum pumping machine includes a machine platform, on which are arranged mutually cooperating plate-feeding synchronous belt lines, vacuum chamber synchronous belt lines, plate-out synchronous belt lines, vacuum lower chamber, vacuum upper chamber assembly and chamber pressure fixture assembly; wherein the plate-feeding synchronous belt lines, vacuum chamber synchronous belt lines, plate-out synchronous belt lines and vacuum lower chamber are respectively fixed on the machine platform, the vacuum chamber synchronous belt lines are arranged in the vacuum lower chamber, the plate-feeding synchronous belt lines and plate-out synchronous belt lines are arranged inside and outside the vacuum lower chamber, the plate-feeding synchronous belt lines are connected to the vacuum chamber synchronous belt lines at the input end, and the plate-out synchronous belt lines are connected to the vacuum chamber synchronous belt lines at the output end. Next, the vacuum upper cavity assembly is installed on the machine platform and cooperates with the vacuum lower cavity, and the intra-cavity pressure fixture assembly is installed on the vacuum upper cavity assembly; the carrier enters the vacuum cavity synchronous belt line in the vacuum lower cavity through the board inlet synchronous belt line, and the vacuum cavity synchronous belt line delivers the carrier to the middle of the vacuum lower cavity, and the vacuum upper cavity in the vacuum upper cavity assembly descends and tightly seals the vacuum lower cavity. After vacuuming, the intra-cavity pressure fixture assembly moves to buckle the upper carrier and the lower fixture, and the vacuum upper cavity and the intra-cavity pressure fixture assembly rise at the same time, and the vacuum cavity synchronous belt line delivers the carrier to the board outlet synchronous belt line and sends it to the next workstation.
[0006] Furthermore, the vacuum upper chamber assembly includes an upper chamber lifting cylinder and a vacuum upper chamber that cooperate with each other; wherein, the upper chamber lifting cylinder is fixed on the upper table plate of the machine, and the vacuum upper chamber is installed on the movable end of the upper chamber lifting cylinder and is driven by it to lift and dock with the vacuum lower chamber.
[0007] Furthermore, the intra-cavity pressure jig assembly includes a jig electric cylinder and a pressure plate that cooperate with each other; wherein, the jig electric cylinder is fixed on the upper plate of the vacuum upper cavity, a through hole is opened on the upper plate of the vacuum upper cavity, and the pressure plate is installed on the movable end of the jig electric cylinder. The movement of the jig electric cylinder drives the pressure plate downward through the through hole to press the upper carrier and the lower carrier to engage, and a seal is provided at the cooperation between the jig electric cylinder and the through hole.
[0008] Furthermore, the synchronous belt lines for inlet and outlet plates, vacuum chamber and outlet plates are all driven by motors.
[0009] By adopting the above technical solution, the utility model develops this automatic vacuum pumping machine in response to market needs. It is particularly important for coating and infusion processes because it can remove the gas in the material to avoid leaving gaps after the material is solidified, resulting in poor product quality. It can also improve the density of the material and improve the structural and performance of the product. The utility model has strong applicability and can completely remove tiny bubbles in epoxy resin, significantly improving product quality and appearance. It is an indispensable and important equipment in modern manufacturing. Description of the drawings:
[0010] The following is a detailed description of the utility model with accompanying drawings:
[0011] Figure 1 It is a three-dimensional schematic diagram of the utility model;
[0012] Figure 2 It is a schematic diagram of the vacuum upper cavity assembly and the intracavity pressure fixture assembly of the utility model. Specific implementation method:
[0013] The utility model is described in detail below with reference to the accompanying drawings and embodiments:
[0014] Figure 1-Figure 2 Shown is an embodiment of the utility model.
[0015] An automatic vacuum pumping machine includes a machine platform 1, on which are provided a plate-feeding synchronous belt line 2, a vacuum chamber synchronous belt line 3, a plate-out synchronous belt line 4, a vacuum lower chamber 5, a vacuum upper chamber assembly 6, and an intracavity pressure fixture assembly 7, which cooperate with each other; wherein the plate-feeding synchronous belt line 2, the vacuum chamber synchronous belt line 3, the plate-out synchronous belt line 4, and the vacuum lower chamber 5 are respectively fixed on the machine platform 1, the vacuum chamber synchronous belt line 3 is arranged in the vacuum lower chamber 5, the plate-feeding synchronous belt line 2 and the plate-out synchronous belt line 4 are arranged inside and outside the vacuum lower chamber 5, the plate-feeding synchronous belt line 2 is connected to the input end of the vacuum chamber synchronous belt line 3, and the plate-out synchronous belt line 5 is connected to the output end of the vacuum chamber synchronous belt line 3 Next, the vacuum upper cavity assembly 6 is installed on the machine 1 and cooperates with the vacuum lower cavity 5, and the intracavity pressure fixture assembly 7 is installed on the vacuum upper cavity assembly 6; the carrier 8 enters the vacuum cavity synchronous belt line 3 in the vacuum lower cavity 5 through the board inlet synchronous belt line 2, and the vacuum cavity synchronous belt line 3 delivers the carrier 8 to the middle of the vacuum lower cavity 5, and the vacuum upper cavity 61 in the vacuum upper cavity assembly 6 descends and tightly seals the vacuum lower cavity 5. After vacuuming, the intracavity pressure fixture assembly 7 is activated to buckle the upper carrier and the lower fixture, and the vacuum upper cavity 61 and the intracavity pressure fixture assembly 7 rise at the same time, and the vacuum cavity synchronous belt line 3 conveys the carrier to the board outlet synchronous belt line 4 and sends it to the next workstation.
[0016] In a specific embodiment, the vacuum upper chamber assembly 6 includes an upper chamber lifting cylinder 62 and a vacuum upper chamber 61 that cooperate with each other; wherein the upper chamber lifting cylinder 62 is fixed on the upper platen 11 of the machine 1, and the vacuum upper chamber 61 is installed at the movable end of the upper chamber lifting cylinder 62 and is driven by it to lift and dock with the vacuum lower chamber 5.
[0017] The intracavity pressure jig assembly 7 includes a jig electric cylinder 71 and a pressure plate 72 that cooperate with each other; wherein, the jig electric cylinder 71 is fixed on the upper plate of the vacuum upper cavity 61, a through hole is opened on the upper plate of the vacuum upper cavity 61, and the pressure plate 72 is installed on the movable end of the jig electric cylinder 71. The movement of the jig electric cylinder 71 drives the pressure plate downward through the through hole to press the upper carrier and the lower carrier to buckle, and a seal is provided at the cooperation between the jig electric cylinder 71 and the through hole.
[0018] The board inlet synchronous belt line 2, the vacuum chamber synchronous belt line 3, and the board outlet synchronous belt line 4 are all driven by motors.
[0019] During operation, the carrier enters the vacuum lower cavity through the board-feeding synchronous belt line. After receiving the board-present signal, the board-feeding synchronous belt line sends the carrier to the middle of the vacuum lower cavity and stops. The upper cavity lifting cylinder drives the vacuum upper cavity down and presses it tightly. At this time, the vacuum lower cavity and the vacuum upper cavity are tightly sealed. After the vacuum is started and the set value is reached, the intra-cavity pressure fixture electric cylinder presses down to automatically buckle the upper carrier with the lower fixture. The intra-cavity pressure fixture electric cylinder of the vacuum upper cavity rises at the same time, and the board-feeding synchronous belt line starts to transfer the carrier to the board-out synchronous belt line. The board-out synchronous belt line assists in sending it to the next workstation to complete a product vacuuming action.
[0020] The utility model has strong applicability and can completely remove tiny bubbles in epoxy resin, significantly improving product quality and appearance. It is an indispensable and important equipment in modern manufacturing industry. The production volume is calculated based on PCS, and the degassing success rate can be lower than 0.1%. The equipment is mature and stable, and the modular design can be used for stand-alone production as well as online production, and has a wide range of applications. The carrier is transmitted by a synchronous belt, the cylinder lifts the vacuum chamber to switch the vacuum chamber, and the electric cylinder chamber is pressed to complete the vacuum pumping. No personnel supervision is required during production. The combination of the front pump XD-302 and the Roots pump JRP-1000 has the characteristics of fast start-up, low power consumption, low operation and maintenance costs, high pumping speed (1000 cubic meters per hour), and high efficiency.
[0021] The above description shows and describes the preferred embodiments of the utility model. As mentioned above, it should be understood that the utility model is not limited to the form disclosed herein, and should not be regarded as excluding other embodiments, but can be used in various other combinations, modifications and environments, and can be modified within the scope of the utility model concept described herein through the above teachings or the technology or knowledge of the relevant field. The changes and modifications made by those skilled in the art do not depart from the spirit and scope of the utility model, and should be within the scope of protection of the claims attached to the utility model.
Claims
1. An automatic vacuum pump, characterized in that: The machine comprises a platform, on which are provided a plate-feeding synchronous belt line, a vacuum chamber synchronous belt line, a plate-out synchronous belt line, a vacuum lower chamber, a vacuum upper chamber assembly and an intra-cavity pressure fixture assembly, which cooperate with each other; wherein, the plate-feeding synchronous belt line, the vacuum chamber synchronous belt line, the plate-out synchronous belt line and the vacuum lower chamber are respectively fixed on the machine platform, the vacuum chamber synchronous belt line is arranged in the vacuum lower chamber, the plate-feeding synchronous belt line and the plate-out synchronous belt line are arranged inside and outside the vacuum lower chamber, the plate-feeding synchronous belt line is connected to the input end of the vacuum chamber synchronous belt line, the plate-out synchronous belt line is connected to the output end of the vacuum chamber synchronous belt line, and the vacuum chamber synchronous belt line is connected to the output end of the vacuum chamber synchronous belt line. The upper cavity assembly is installed on the machine platform and cooperates with the vacuum lower cavity, and the intra-cavity pressure fixture assembly is installed on the vacuum upper cavity assembly; the carrier enters the vacuum cavity synchronous belt line in the vacuum lower cavity through the board inlet synchronous belt line, and the vacuum cavity synchronous belt line delivers the carrier to the middle of the vacuum lower cavity, and the vacuum upper cavity in the vacuum upper cavity assembly descends and tightly seals the vacuum lower cavity. After vacuuming, the intra-cavity pressure fixture assembly moves to buckle the upper carrier and the lower fixture, and the vacuum upper cavity and the intra-cavity pressure fixture assembly rise at the same time, and the vacuum cavity synchronous belt line transports the carrier to the board outlet synchronous belt line and sends it to the next workstation.
2. An automatic vacuum pump as claimed in claim 1, characterized in that: The vacuum upper chamber assembly includes an upper chamber lifting cylinder and a vacuum upper chamber that cooperate with each other; wherein the upper chamber lifting cylinder is fixed on the upper platen of the machine, and the vacuum upper chamber is installed on the movable end of the upper chamber lifting cylinder and is driven by it to lift and dock with the vacuum lower chamber.
3. An automatic vacuum pump as claimed in claim 2, characterized in that: The intra-cavity pressure jig assembly includes a jig electric cylinder and a pressure plate that cooperate with each other; wherein, the jig electric cylinder is fixed on the upper plate of the vacuum upper cavity, a through hole is opened on the upper plate of the vacuum upper cavity, and the pressure plate is installed on the movable end of the jig electric cylinder. The movement of the jig electric cylinder drives the pressure plate downward through the through hole to press the upper carrier and the lower carrier to engage, and a seal is provided at the cooperation between the jig electric cylinder and the through hole.
4. An automatic vacuum pump as claimed in claim 1, 2 or 3, characterized in that: The synchronous belt lines for inlet and outlet are all driven by motors.