Double-station hydraulic discharging machine for silicone sealant processing

Abstract

The utility model provides a double position hydraulic discharge machine for organic silicon sealant processing, including jar body, isolation mechanism and alternate assembly, the side surface of jar body is connected with storage tank, the bottom surface welding of storage tank has the support column, the inside of jar body is provided with first cavity, second cavity and conical cavity, the bottom surface of conical cavity has set up the discharge gate, this device passes through the alternate assembly of installation, when the first cavity inside sealant carries out the discharge, the second cavity carries out the filling simultaneously, thereby avoided the transmission interruption, improved production efficiency, and this process automation degree is high, need not manual control cavity full state, through L type board and push -plate linkage realized the automatic switch of feeding port, reduced the labor cost, and through the installation isolation assembly, makes the sealant after entering conical cavity not appears because of the cavity suddenly expands and leads to the sealant flow rate sudden drop condition, ensures the even continuous of sealant line, has promoted the product consistency.

Description

Technical Field

[0001] This utility model relates to the field of sealant processing technology, specifically a dual-station hydraulic discharge machine for processing silicone sealant. Background Technology

[0002] Sealants are functional materials made using polymer synthesis technology, used for filling gaps and bonding seals, and widely applied in the construction, industrial, and electronic fields. According to existing technology, such as the hydraulic discharge machine for sealant processing disclosed in Chinese patent document CN220391663U, a dispensing cylinder is placed on a conveyor belt and transported from the inlet to the inside of the material tank. A photoelectric detection switch detects the dispensing cylinder. At this time, the controller receives the signal and controls the gate to drop, intercepting the dispensing cylinder. The dispensing cylinder is intercepted below the outlet of the sealant cavity. The controller then controls the electric valve to open, and simultaneously the hydraulic rod opens, driving the extrusion plate downwards to squeeze the sealant from the outlet into the dispensing cylinder. When the radar material meter detects that the material inside the dispensing cylinder has reached a set value, the controller controls the gate to open, causing the conveyor belt to send the dispensing cylinder out, the hydraulic rod retracts, and the electric valve closes.

[0003] According to its publicly available technical solutions, the existing technology uses a hydraulic rod to drive an extrusion plate to discharge the sealant from the sealant cavity, and then uses a conveyor belt to send out the packaged sealant. When the sealant in the sealant cavity is emptied, the machine needs to be stopped to inject sealant into the sealant cavity. This process is time-consuming, and subsequent work cannot be carried out before the sealant is filled, which reduces production efficiency. Utility Model Content

[0004] To address the shortcomings of existing technologies, the present invention aims to provide a dual-station hydraulic discharge machine for processing silicone sealant, thereby solving the problems mentioned in the background section. This invention utilizes alternating components to simultaneously fill the second cavity while the sealant is being discharged from the first cavity, thus avoiding interruptions in the conveying process, improving production efficiency, and achieving a high degree of automation. No manual monitoring of the cavity filling status is required. The automatic opening and closing of the feed inlet is achieved through the linkage between the L-shaped plate and the push plate, reducing labor costs.

[0005] To achieve the above objectives, this utility model is implemented through the following technical solution: a dual-station hydraulic discharge machine for processing organosilicon sealant, comprising a discharge machine body, the discharge machine body comprising a tank, an isolation mechanism and an alternating component, a storage box connected to the side of the tank, a support column welded to the bottom of the storage box, and the interior of the tank being provided with a first cavity, a second cavity and a conical cavity, the bottom of the conical cavity being provided with a discharge port.

[0006] Furthermore, the alternating component includes a first push plate, a second push plate, a first L-shaped plate, and a second L-shaped plate, wherein the first push plate and the first L-shaped plate are disposed inside the first cavity, and the second push plate and the second L-shaped plate are disposed inside the second cavity.

[0007] Furthermore, a first hydraulic rod and a second hydraulic rod are welded to the surfaces of the first push plate and the second push plate, respectively, and a first connecting rod and a second connecting rod are welded to the top surfaces of the first L-shaped plate and the second L-shaped plate, respectively.

[0008] Furthermore, springs are fitted onto the surfaces of both the first and second connecting rods, and circular baffles are welded to the ends of both the first and second connecting rods.

[0009] Furthermore, the ends of the first connecting rod and the second connecting rod both pass through the top surface of the tank, and the tank has a first feed inlet and a second feed inlet on its two sides respectively.

[0010] Furthermore, the isolation mechanism includes an isolation plate, a rotating shaft, and a sliding plate. The isolation mechanism is disposed inside a conical cavity. A baffle is welded on the inner wall of the conical cavity. Magnetic strips are installed on the surface of the isolation plate and the sides of the baffle.

[0011] Furthermore, the end of the rotating shaft is inserted into the inner wall of the tank via a bearing, and the top surface of the isolation plate is welded to the bottom surface of the rotating shaft.

[0012] Furthermore, the sliding plate is inserted inside the isolation plate, and a telescopic spring is welded to one end of the sliding plate, while the other end of the telescopic spring is welded to the inner wall of the isolation plate.

[0013] The beneficial effects of this utility model are:

[0014] 1. This dual-station hydraulic discharge machine for processing silicone sealant uses alternating components to simultaneously fill the second cavity while the sealant is being discharged from the first cavity, thus avoiding interruptions in the conveying process, improving production efficiency, and the process is highly automated, eliminating the need for manual monitoring of the cavity filling status. The automatic opening and closing of the feed port is achieved through the linkage between the L-shaped plate and the push plate, reducing labor costs.

[0015] 2. This dual-station hydraulic discharge machine for processing silicone sealant, through the installation of an isolation component, prevents the sealant from experiencing a sudden drop in flow rate due to the sudden expansion of the conical cavity after entering the cavity. This ensures a uniform and continuous sealant flow, improving product consistency. Furthermore, the sliding plate actively extends and cleans residual sealant from the discharge port, effectively preventing clogging caused by curing or accumulation, and reducing maintenance needs and downtime. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the external structure of a dual-station hydraulic discharge machine for processing organosilicon sealant according to this utility model;

[0017] Figure 2 This is a cross-sectional view of the tank body of a dual-station hydraulic discharge machine for processing organosilicon sealant according to this utility model;

[0018] Figure 3 This is a schematic diagram of the isolation plate of a dual-station hydraulic discharge machine for processing organosilicon sealant according to the present invention;

[0019] Figure 4 This is a cross-sectional view of the isolation plate of a dual-station hydraulic discharge machine for processing organosilicon sealant according to this utility model;

[0020] In the diagram: 1. Tank body; 2. Isolation mechanism; 3. Alternating assembly; 4. Support column; 5. Storage box; 6. Second connecting rod; 7. First connecting rod; 8. First hydraulic rod; 9. Baffle bar; 10. Second push plate; 11. First feed inlet; 12. First L-shaped baffle; 13. First push plate; 14. Isolation plate; 15. Rotating shaft; 16. Sliding plate; 17. Telescopic spring; 18. Second feed inlet; 19. Second hydraulic rod; 20. First cavity; 21. Second cavity; 22. Conical cavity; 23. Discharge port; 24. Second L-shaped baffle; 25. Magnetic strip. Detailed Implementation

[0021] To make the technical means, creative features, objectives and effects of this utility model easier to understand, the present utility model will be further described below in conjunction with specific embodiments.

[0022] Please see Figures 1 to 4 This utility model provides the following technical solution: a dual-station hydraulic discharge machine for processing silicone sealant, including a discharge machine body, the discharge machine body including a tank 1, an isolation mechanism 2 and an alternating component 3, a storage box 5 connected to the side of the tank 1, a support column 4 welded to the bottom surface of the storage box 5, a first cavity 20, a second cavity 21 and a conical cavity 22 provided inside the tank 1, and a discharge port 23 opened on the bottom surface of the conical cavity 22. Through the linkage mechanism of the first cavity 20 and the second cavity 21, the continuous filling and discharge of sealant can be realized.

[0023] In this embodiment, the alternating component 3 includes a first push plate 13, a second push plate 10, a first L-shaped baffle 12, and a second L-shaped baffle 24. The first push plate 13 and the first L-shaped baffle 12 are disposed inside the first cavity 20, and the second push plate 10 and the second L-shaped baffle 24 are disposed inside the second cavity 21. A first hydraulic rod 8 and a second hydraulic rod 19 are respectively welded to the surfaces of the first push plate 13 and the second push plate 10. A first connecting rod 7 and a second connecting rod 7 are respectively welded to the top surfaces of the first L-shaped baffle 12 and the second L-shaped baffle 24. The first connecting rod 6 and the second connecting rod 6 are both fitted with springs. The ends of the first connecting rod 7 and the second connecting rod 6 are both welded with circular baffles. The ends of the first connecting rod 7 and the second connecting rod 6 pass through the top surface of the tank body 1. The tank body 1 has a first feed port 11 and a second feed port 18 on its two sides, respectively. The first hydraulic rod 8 drives the first push plate 13 to move up and down. The up and down movement of the first push plate 13 is linked to the up and down movement of the first L-shaped rod, thereby realizing the opening and closing of the first feed port 11.

[0024] In this embodiment, the isolation mechanism 2 includes an isolation plate 14, a rotating shaft 15, and a sliding plate 16. The isolation mechanism 2 is disposed inside a conical cavity 22. A baffle 9 is welded to the inner wall of the conical cavity 22. Magnetic strips 25 are installed on the surface of the isolation plate 14 and the side of the baffle 9. The end of the rotating shaft 15 is inserted into the inner wall of the tank 1 through a bearing. The top surface of the isolation plate 14 is welded to the bottom surface of the rotating shaft 15. The sliding plate 16 is inserted into the isolation plate 14. A telescopic spring 17 is welded to the end of the sliding plate 16. The other end of the telescopic spring 17 is welded to the inner wall of the isolation plate 14. The sealant pushes the isolation plate 14 to move. When the isolation plate 14 moves to the discharge port 23, the sliding plate 16 extends under the elastic force of the telescopic spring 17, pushing out the sealant remaining at the discharge port 23.

[0025] Working principle: In the initial state, the first push plate 13 is at the top of the first cavity 20, the spring on the surface of the first connecting rod 7 is in a stretched state, the first feed port 11 is in an open state, the second push plate 10 is at the bottom of the second cavity 21, the second feed port 18 is in a closed state, the isolation plate 14 is in a vertical state under the action of gravity, and the sliding plate 16 is in a convex state under the action of the elastic force of the telescopic spring 17. The sealant inside the storage box 5 enters the interior of the first cavity 20 through the first feed port 11. When the interior of the first cavity 20 is full, the first hydraulic rod 8 and the second hydraulic rod 19 are activated. The first hydraulic rod 8 drives the first push plate 13 to move downward. During the downward movement of the first push plate 13, the first connecting rod 7 moves downward under the action of the spring. The displacement causes the first L-shaped baffle 12 to move downwards synchronously, closing the first feed inlet 11. Simultaneously, the second hydraulic rod 19 drives the second push plate 10 to move upwards. During this movement, the second push plate 10 pushes the second L-shaped baffle 24 upwards. This upward movement causes the spring fitted on the surface of the second connecting rod 6 to enter a stretched state. The upward movement of the second L-shaped baffle 24 also opens the second feed inlet 18 of the second cavity 21, allowing the sealant to pass through the second feed inlet 18 and enter the interior of the second cavity 21. The first push plate 13 pushes the sealant downwards into the conical cavity 22. During this process, the sealant pushes the isolation plate 14 to rotate, and the displacement of the isolation plate 14 causes the sliding plate 16 to move forward. During the displacement of the sliding plate 16, the inclined surface of the sliding plate 16 contacts the inner wall of the discharge port 23. The displacement continues, causing the sliding plate 16 to enter the interior of the isolation plate 14. The telescopic spring 17 enters a compressed state. The displacement stops when the magnetic strip 25 on the surface of the isolation plate 14 contacts the magnetic strip 25 on the side of the stop bar 9. The sealant inside the second cavity 21 is restricted by the isolation plate 14 and accumulates inside the second cavity 21. The sealant inside the conical cavity 22 is discharged through the bottom discharge port 23. When the first push plate 13 descends to the bottom of the first cavity 20, the first hydraulic rod 8 drives the first push plate 13 to move upward, while the second hydraulic rod 19 drives the second push plate 10 to move downward. During the upward movement of the first push plate 13, the first feed port 11 reopens. During the downward movement of the second push plate 10, the second feed port 18 is closed. At the same time, the isolation plate 14 is disengaged from the magnetic strip 25 on the side of the baffle 9 by the force of the sealant. The sealant pushes the isolation plate 14 to continue to rotate. When the isolation plate 14 rotates to the bottom surface and disengages from the inner wall of the discharge port 23, the sliding plate 16 extends under the elastic force of the extension spring 17 and enters the interior of the discharge port 23 to push out the sealant remaining in the discharge port 23 and prevent the discharge port 23 from becoming blocked. When the sliding plate 16 continues to move to the opposite inclined surface and contacts the inner wall of the other side of the discharge port 23, the sliding plate 16 re-enters the interior of the isolation plate 14. When the isolation plate 14 moves to the opposite baffle 9, the magnetic strip 25 on the surface of the isolation plate 14 is attracted to the magnetic strip 25 on the side of the baffle 9. The above operation is repeated.

[0026] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. It is obvious to those skilled in the art that this utility model is not limited to the details of the above exemplary embodiments, and that it can be implemented in other specific forms without departing from the spirit or basic characteristics of this utility model.

[0027] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. A double-station hydraulic discharge machine for silicone sealant processing, comprising a discharge machine body, characterized in that: The discharge machine body includes a tank (1), an isolation mechanism (2) and an alternating component (3). A storage box (5) is connected to the side of the tank (1). A support column (4) is welded to the bottom of the storage box (5). The tank (1) is provided with a first cavity (20), a second cavity (21) and a conical cavity (22). The bottom of the conical cavity (22) is provided with a discharge port (23).

2. The dual-station hydraulic feeding machine for processing organosilicon sealant according to claim 1, characterized in that: The alternating component (3) includes a first push plate (13), a second push plate (10), a first L-shaped baffle (12), and a second L-shaped baffle (24). The first push plate (13) and the first L-shaped baffle (12) are disposed inside the first cavity (20), and the second push plate (10) and the second L-shaped baffle (24) are disposed inside the second cavity (21).

3. The dual-station hydraulic feeding machine for processing organosilicon sealant according to claim 2, characterized in that: The surfaces of the first push plate (13) and the second push plate (10) are respectively welded with a first hydraulic rod (8) and a second hydraulic rod (19), and the top surfaces of the first L-shaped baffle (12) and the second L-shaped baffle (24) are respectively welded with a first connecting rod (7) and a second connecting rod (6).

4. The dual-station hydraulic discharge machine for processing organosilicon sealant according to claim 3, characterized in that: Springs are fitted on the surface of the first link (7) and the surface of the second link (6), and circular baffles are welded to the ends of the first link (7) and the second link (6).

5. A dual-station hydraulic discharge machine for processing organosilicon sealant according to claim 4, characterized in that: The ends of the first connecting rod (7) and the second connecting rod (6) both pass through the top surface of the tank (1), and the tank (1) is provided with a first feed inlet (11) and a second feed inlet (18) on both sides respectively.

6. The dual-station hydraulic feeding machine for processing organosilicon sealant according to claim 1, characterized in that: The isolation mechanism (2) includes an isolation plate (14), a rotating shaft (15) and a sliding plate (16). The isolation mechanism (2) is located inside a conical cavity (22). A baffle (9) is welded on the inner wall of the conical cavity (22). Magnetic strips (25) are installed on the surface of the isolation plate (14) and the side of the baffle (9).

7. The dual-station hydraulic feeding machine for processing organosilicon sealant according to claim 6, characterized in that: The end of the rotating shaft (15) is inserted into the inner wall of the tank (1) via a bearing, and the top surface of the isolation plate (14) is welded to the bottom surface of the rotating shaft (15).

8. A dual-station hydraulic discharge machine for processing organosilicon sealant according to claim 7, characterized in that: The sliding plate (16) is inserted inside the isolation plate (14), and a telescopic spring (17) is welded to one end of the sliding plate (16). The other end of the telescopic spring (17) is welded to the inner wall of the isolation plate (14).

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