Rubber gasket processing cooling line

Abstract

A rubber gasket processing cooling line relates to the technical field of rubber gasket processing cooling equipment and comprises a main body shell, a feeding port is formed in the upper end of the main body shell, a circular cavity is formed in the main body shell, cooling equipment is mounted at the middle end in the main body shell, a containing cavity is formed in the cooling equipment, and a partition plate is arranged in the cooling equipment. The containing cavity is divided into a plurality of independent spaces through the partition plates, the draught fan is installed on the right side of the exterior of the main body shell, the air outlet end of the draught fan communicates with the main body shell, and the front face of the exhaust port extends outwards to penetrate out of the interior of the main body shell, so that rubber gaskets of different sizes and models fall onto screening holes formed by the first screening plate and the fixing plate; the rubber gaskets with small sizes can fall down to the second screening plate, the second screening plate is subjected to primary screening, so that size classification of the rubber gaskets is completed, and when airflow enters the containing cavity, the airflow can make contact with the gaskets with large sizes firstly and then make contact with the gaskets with small sizes, so that cracks caused by too fast cooling of the small gaskets are avoided.

Description

Technical Field

[0001] The invention relates to the technical field of rubber gasket processing cooling equipment, and more specifically, to a rubber gasket processing cooling line. Background Art

[0002] The basic process of rubber product processing includes plasticizing, mixing, calendering or extrusion, molding and vulcanization. The production and processing of most rubber products are inseparable from the cooling and transportation of rubber products. Therefore, cooling equipment is often used in the production process of rubber gaskets. Existing rubber gasket cooling equipment, such as a rubber gasket processing cooling line with publication number CN220661494U, includes: the rubber gasket processing cooling line, driven by the output shaft of the second motor, causes the wheel to rotate, and driven by the rotation of the wheel, causes the driving ring plate to rotate, and then causes the rotating flip roller to rotate, and then causes the rubber gasket in the rotating flip roller to flip, and under the action of the rubber gasket rolling, the rubber gasket can be cooled more evenly, thereby ensuring the cooling quality of the rubber gasket. The rubber gasket processing cooling line, through the blowing action of the fan, causes the rubber gasket inside the rotating flip roller to be cooled by wind from bottom to top, and driven by the output shaft of the first motor, causes the rotating column to rotate, and driven by the rotating column, causes the flip plate to rotate, and then causes the rubber gasket in the rotating flip roller to flip more fully, thereby making the cooling of the rubber gasket more sufficient; However, the existing rubber gasket cooling equipment is unable to classify gaskets of different diameters before cooling them during use, so that rubber gaskets of different sizes are cooled in the same space. When the cooling airflow is controlled to be large, small-sized gaskets are easily cooled too quickly, causing cracks in the product. When the cooling airflow is controlled to be small, the cooling time is greatly increased, thereby affecting the processing efficiency of the gasket. Summary of the invention

[0003] The invention aims to solve the technical problem in the prior art that rubber gaskets of different sizes are cooled in the same space and the rubber gaskets cannot be screened and then cooled.

[0004] The purpose and effect of the present invention are achieved by the following specific technical means: A rubber gasket processing cooling line comprises a main body shell, the upper end of the main body shell is provided with a feed inlet, a circular cavity is provided inside, a cooling device is installed at the middle end of the main body shell, a accommodating cavity is provided inside the cooling device, a partition is provided at the adjacent position of the accommodating cavity inside the cooling device, and the accommodating cavity is divided into a plurality of independent spaces by the partition, a fan is installed on the right side of the outside of the main body shell, the air outlet end of the fan is connected with the main body shell, an air inlet is provided on the side of the main body shell corresponding to the fan, the air inlet is rectangular, a discharge hopper is provided at the lower end of the outside of the main body shell, a discharge port is provided at the position of the main body shell corresponding to the discharge hopper, a first screen plate and a second screen plate are installed inside the accommodating cavity, screening slots are provided on both sides of the outside of the first screen plate, the screening slots are semicircular, and the second screen plate and the first screen plate have the same structural arrangement, a screening slot is also provided on the outside, and the cooling device is relatively A fixed plate is arranged on the outer side of the first screen plate and the second screen plate, the fixed plate and the screen plate are arranged adjacent to each other, and a filter is installed on one side of the accommodating cavity close to the middle of the cooling device, an exhaust port is arranged on one side of the filter, and the front of the exhaust port extends outward through the interior of the main shell, a push plate is installed inside the partition, one end of the push plate is arranged in an arc shape and passes through the interior of the partition, one end of the first screen plate and the second screen plate is arranged as an inclined surface and passes into the interior of the partition, an inclined groove is arranged at the position where the push plate is opposite to the first screen plate, a sliding block is arranged on the outer side of one end of the push plate close to the outer edge of the cooling device, a sliding groove corresponding to the sliding block is arranged inside the partition, and a spring is placed in the sliding groove, a first baffle plate and a second baffle plate are arranged on the other side of the accommodating cavity relative to the first screen plate and the second screen plate, and a reset spring is installed at one end of the first baffle plate and the second baffle plate corresponding to the first screen plate and the second screen plate.

[0005] Furthermore, the accommodating cavity is arranged in a fan shape, and a plurality of the accommodating cavities are arranged equidistantly around the inner circumference of the cooling device.

[0006] Furthermore, the diameter of the screening grooves on the outer side of the second outer screening plate is smaller than that on the first screening plate.

[0007] Furthermore, the fixing plate is also provided with a semicircular groove which forms a complete circle with the screening grooves on the first screening plate and the second screening plate.

[0008] Furthermore, the inner inclined surface of the inclined groove fits with the inclined surface of the first screen plate, and one end of the push plate corresponds to the second screen plate and is also arranged in an inclined shape.

[0009] Furthermore, the screening plate extends into the interior of the baffle plate, and the first baffle plate, the second baffle plate and the inner wall of the accommodating chamber form a discharge channel.

[0010] Furthermore, a rotating rod is installed inside the accommodating chamber, a stirring blade is arranged outside the rotating rod, and front and rear ends of the rotating rod extend outwards and pass through the accommodating chamber.

[0011] Furthermore, a limiting groove is provided on the inner wall of the cooling device at a position corresponding to the rotating rod, the limiting groove is annular and has convex teeth on the inner side, and a gear tooth is provided on the outer end of the rotating rod and extends into the limiting groove. Beneficial Effects

[0012] A rubber gasket processing cooling line has the following beneficial effects: 1. The cooling device is cylindrically arranged, and a accommodating cavity is arranged inside the cooling device. The accommodating cavity is fan-shaped, and multiple accommodating cavities are equidistantly arranged on the circumference inside the cooling device. A partition is arranged adjacent to the accommodating cavity inside the cooling device, and the accommodating cavity is divided into multiple independent spaces by the partition. A fan is installed on the right side of the outside of the main shell, and the air outlet of the fan is connected with the main shell. An air inlet is arranged on the side of the main shell corresponding to the fan, and the air inlet is rectangular. A discharge hopper is arranged at the lower end of the outside of the main shell, and a discharge port is arranged at the position of the main shell corresponding to the discharge hopper. When the rubber pad to be cooled enters the main shell from the feed port, it can fall into the accommodating cavity. When the cooling device is driven by the driving device and rotates inside the cooling device, the accommodating cavity can correspond to the air inlet, so that the cooling airflow generated by the fan can enter the accommodating cavity and contact with the rubber gasket to complete the cooling of the rubber gasket.

[0013] 2. The first sieve plate and the second sieve plate are installed inside the accommodating cavity, and sieve grooves are arranged on both sides of the outside of the first sieve plate. The sieve grooves are arranged in a semicircular shape. The second sieve plate and the first sieve plate have the same structure and are also arranged on the outside. The sieve grooves on the outside are smaller than those on the first sieve plate. A fixed plate is arranged inside the cooling device relative to the outside of the first sieve plate and the second sieve plate. The fixed plate and the sieve plate are arranged adjacently, and a semicircular groove is also arranged on it to form a complete circle with the sieve grooves on the first sieve plate and the second sieve plate. The accommodating cavity A filter is installed on one side of the interior near the middle of the cooling device, and an exhaust port is provided on one side of the filter. The front of the exhaust port extends outward and passes through the interior of the main shell, so that rubber gaskets of different sizes and models fall on the screening holes formed by the first screening plate and the fixed plate, so that the rubber gaskets of smaller sizes can fall down to the second screening plate, and the second screening plate is screened once to complete the size classification of the rubber gaskets. When the airflow enters the accommodating cavity, it can first contact the large-sized gaskets and then contact the small-sized gaskets, so as to avoid the small gaskets from cooling too quickly and causing cracks; 3. An electric push rod is installed at the upper left corner of the cooling device corresponding to the inside of the accommodating cavity, a push plate is installed inside the partition, one end of the push plate is set in an arc shape and passes through the inside of the partition, the first screen plate and one end of the second screen plate are set in an inclined surface and pass into the inside of the partition, an inclined groove is set at the position opposite to the first screen plate, the inclined surface in the inclined groove fits the inclined surface of the first screen plate, one end of the push plate corresponds to the second screen plate, and is also set in an inclined shape, a sliding block is set on the outside of one end of the push plate close to the outer edge of the cooling device, a sliding groove corresponding to the sliding block is set inside the partition, and the sliding groove is A spring is placed, so when the electric push rod intermittently drives the push plate to move into the partition and then resets, the inclined surface of the inclined groove on it can contact the first screening plate, thereby driving it to move relative to the fixed plate, so that the rubber gasket on it is driven to move, thereby accelerating the screening speed of the gasket. The upper end of the push plate is set as an inclined arc, so when the cooling equipment rotates, it can contact the right side of the bottom of the feed port, thereby driving the push plate to move completely inward, so that the first screening plate and the second screening plate are switched to a state of being misaligned with the semicircular groove on the outer side of the fixed plate, so that the screened rubber gasket can no longer pass through the screening plate in the opposite direction.

[0014] 4. A first baffle plate and a second baffle plate are arranged on the other side of the accommodating chamber relative to the first screening plate and the second screening plate, the screening plate extends into the baffle plate, and the first baffle plate, the second baffle plate and the inner wall of the accommodating chamber form a discharge channel, and a return spring is installed at one end of the first baffle plate and the second baffle plate corresponding to the first screening plate and the second screening plate, so that as the cooling device rotates, rubber gaskets of different sizes can be discharged outward from different positions corresponding to the discharge hopper, thereby achieving the effect of classifying and discharging the rubber gaskets, and a rotating rod is also installed in the accommodating chamber, and a stirring piece is arranged on the outside of the rotating rod. The front and rear ends of the rotating rod extend outwardly through the accommodating chamber, and a limiting groove is arranged on the inner wall of the cooling device corresponding to the position of the rotating rod. The limiting groove is annularly arranged, and a convex tooth is arranged on the inside. The outer end of the rotating rod is provided with a gear tooth and extends into the limiting groove. When the cooling device rotates, the rotating rod and the convex tooth can bite each other, so that the stirring piece can contact with the rubber gasket, stir them and separate them, thereby improving the cooling efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is an overall external schematic diagram of the present invention.

[0016] Figure 2 It is a schematic cross-sectional view of the main body shell of the present invention.

[0017] Figure 3 For the present invention Figure 2 Enlarged schematic diagram at point A in the middle.

[0018] Figure 4 It is a schematic diagram of the limiting groove of the present invention.

[0019] Figure 5 For the present invention Figure 4 Enlarged schematic diagram of point B in the middle.

[0020] Figure 6 It is a schematic top view of a cross section of the cooling device of the present invention.

[0021] Figure 7 It is a three-dimensional schematic diagram of the first screen plate of the present invention.

[0022] Figure 1-7 In: 1-main body shell, 101-air inlet, 102-limiting groove, 2-fan, 3-discharging hopper, 4-exhaust port, 5-cooling device, 501-accommodating chamber, 502-fixed plate, 6-partition, 7-electric push rod, 8-push plate, 801-slanted groove, 802-sliding block, 9-first screening plate, 901-screening groove, 10-second screening plate, 11-convex teeth, 12-rotating rod, 1201-stirring blade, 13-filter screen, 14-reset spring, 15-first baffle, 16-second baffle. DETAILED DESCRIPTION

[0023] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the accompanying drawings in the embodiments of the present invention.

[0024] Reference Figure 1-7 , a schematic diagram of the decomposition structure and the planar structure of a rubber gasket processing cooling line A rubber gasket processing cooling line comprises a main body shell 1, wherein the upper end of the main body shell 1 is provided with a material inlet, a circular cavity is provided inside, a cooling device 5 is installed at the middle end inside the main body shell 1, the cooling device 5 is cylindrical, a driving device connected to the cooling device 5 is provided at the rear of the main body shell 1, a receiving cavity 501 is provided inside the cooling device 5, the receiving cavity 501 is fan-shaped, a plurality of receiving cavities 501 are equidistantly provided inside the cooling device 5, a partition 6 is provided at the adjacent position of the corresponding receiving cavity 501 inside the cooling device 5, the receiving cavity 501 is divided into a plurality of independent spaces by the partition 6, a fan 2 is installed on the right side outside the main body shell 1, the air outlet end of the fan 2 is connected with the main body shell 1, an air inlet 101 is provided on the side inside the main body shell 1 corresponding to the fan 2, the air inlet 101 is rectangular, a discharge hopper 3 is provided at the lower end outside the main body shell 1, and a discharge port is provided at the position of the main body shell 1 corresponding to the discharge hopper 3; In a specific implementation, an electric push rod 7 is installed in the accommodating chamber 501 at the upper left corner corresponding to the cooling device 5, a first sieve plate 9 and a second sieve plate 10 are installed in the accommodating chamber 501, sieve grooves 901 are arranged on both sides of the outside of the first sieve plate 9, and the sieve grooves 901 are arranged in a semicircular shape, and the second sieve plate 10 and the first sieve plate 9 have the same structural arrangement, and a sieve groove 901 is also arranged on the outside, but the diameter of the sieve groove 901 on the outside is smaller than that on the first sieve plate 9, a fixed plate 502 is arranged in the cooling device 5 relative to the outside of the first sieve plate 9 and the second sieve plate 10, the fixed plate 502 and the sieve plate are arranged adjacent to each other, and a semicircular groove is also arranged thereon, which forms a complete circle with the sieve grooves 901 on the first sieve plate 9 and the second sieve plate 10, a filter screen 13 is installed on one side of the accommodating chamber 501 close to the middle of the cooling device 5, and an exhaust port 4 is arranged on one side of the filter screen 13, and the front of the exhaust port 4 extends outward through the inside of the main body shell 1; In a specific implementation, a push plate 8 is installed inside the partition 6, one end of the push plate 8 is arranged in an arc shape and passes through the inside of the partition 6, one end of the first screen plate 9 and the second screen plate 10 are arranged in an inclined surface and pass through the inside of the partition 6, and an inclined groove 801 is arranged at a position opposite to the push plate 8 and the first screen plate 9, and the inclined surface in the inclined groove 801 fits the inclined surface of the first screen plate 9, one end of the push plate 8 corresponds to the second screen plate 10, and is also arranged in an inclined shape, and a sliding block 802 is arranged on the outer side of one end of the push plate 8 close to the outer edge of the cooling device 5, and a sliding groove corresponding to the sliding block 802 is arranged inside the partition 6, and a spring is placed in the sliding groove; In a specific implementation, a first baffle plate 15 and a second baffle plate 16 are provided on the other side of the accommodating chamber 501 relative to the first sieve plate 9 and the second sieve plate 10, the sieve plate extends into the baffle plate, the first baffle plate 15 and the second baffle plate 16 and the inner wall of the accommodating chamber 501 form a discharge channel, and a return spring 14 is installed at one end of the first baffle plate 15 and the second baffle plate 16 corresponding to the first sieve plate 9 and the second sieve plate 10; In a specific implementation, a rotating rod 12 is also installed inside the accommodating chamber 501, and an agitating plate 1201 is arranged on the outside of the rotating rod 12. The front and rear ends of the rotating rod 12 extend outwardly through the interior of the accommodating chamber 501. A limiting groove 102 is arranged on the inner wall of the cooling device 5 corresponding to the position of the rotating rod 12. The limiting groove 102 is arranged in an annular shape, and a convex tooth 11 is arranged on the inner side. The outer end of the rotating rod 12 is provided with a gear tooth and extends into the interior of the limiting groove 102.

[0025] Working principle: The cooling device 5 is cylindrically arranged, and a receiving chamber 501 is arranged inside the cooling device 5. The receiving chamber 501 is fan-shaped, and a plurality of receiving chambers 501 are arranged equidistantly on the circumference of the cooling device 5. A partition 6 is arranged adjacent to the receiving chamber 501 inside the cooling device 5, and the receiving chamber 501 is divided into a plurality of independent spaces by the partition 6. A fan 2 is installed on the right side of the outside of the main shell 1, and the air outlet end of the fan 2 is connected to the main shell 1. An air inlet 101 is arranged on one side of the main shell 1 corresponding to the fan 2, and the air inlet 101 is rectangular. A discharge hopper 3 is arranged at the lower end of the outside of the main shell 1, and a discharge port is arranged at the position of the main shell 1 corresponding to the discharge hopper 3. When the rubber pad to be cooled is fed into the main shell 1 from the feed port, After the cooling device 5 is driven by the driving device, it can fall into the accommodating chamber 501. Then, when the cooling device 5 rotates inside the cooling device 5 under the drive of the driving device, the accommodating chamber 501 can correspond to the air inlet 101, so that the cooling airflow generated by the fan 2 can enter the accommodating chamber 501 and contact the rubber gasket to complete the cooling of the rubber gasket. Then, the first screen plate 9 and the second screen plate 10 are installed inside the accommodating chamber 501. Screening grooves 901 are arranged on both sides of the outside of the first screen plate 9. The screening grooves 901 are semicircular in shape, and the second screen plate 10 and the first screen plate 9 have the same structural arrangement. Screening grooves 901 are also arranged on the outside, but the diameter of the screening grooves 901 on the outside is smaller than that on the first screen plate 9. The inside of the cooling device 5 is relatively close to the first screen plate 9. A fixing plate 502 is arranged on the outer side of the second screening plate 10, and the fixing plate 502 and the screening plate are arranged adjacently, and a semicircular groove is also arranged thereon, which forms a complete circle with the screening grooves 901 on the first screening plate 9 and the second screening plate 10, and a filter screen 13 is installed on one side of the accommodating cavity 501 close to the middle of the cooling device 5, and an exhaust port 4 is arranged on one side of the filter screen 13, and the front of the exhaust port 4 extends outwardly through the inside of the main shell 1, so that rubber gaskets of different sizes and models fall on the screening holes formed by the first screening plate 9 and the fixing plate 502, so that the rubber gaskets of smaller sizes can fall downward to the second screening plate 10, and the second screening plate 10 is screened once, thereby completing the size classification of the rubber gaskets, and when the airflow enters the accommodating cavity 501, it can first contact with the large-sized gasket, and then contact with the small-sized gasket to prevent the small gasket from cooling too quickly and causing cracks. Then, an electric push rod 7 is installed at the upper left corner of the cooling device 5 corresponding to the inside of the accommodating cavity 501, and a push plate 8 is installed inside the partition 6. One end of the push plate 8 is set in an arc shape and passes through the inside of the partition 6. The first screen plate 9 and one end of the second screen plate 10 are set as inclined surfaces and penetrate into the inside of the partition 6. An inclined groove 801 is set at the position where the push plate 8 is opposite to the first screen plate 9. The inner inclined surface of the inclined groove 801 fits with the inclined surface of the first screen plate 9. One end of the push plate 8 corresponds to the second screen plate 10 and is also set in an inclined shape. A sliding block 802 is set on the outer side of the end of the push plate 8 close to the outer edge of the cooling device 5.A sliding groove corresponding to the sliding block 802 is provided inside the partition 6, and a spring is placed in the sliding groove. When the electric push rod 7 intermittently drives the push plate 8 to move into the partition 6 and then resets, the inclined surface of the inclined groove 801 on it can contact the first screening plate 9, thereby driving it to move relative to the fixed plate 802, so that the rubber gasket on it is driven to move, thereby accelerating the screening speed of the gasket. The upper end of the push plate 8 is set in an inclined arc shape. When the cooling device 5 rotates, it can contact the right side of the bottom of the feed port, thereby driving the push plate 8 to move completely inward, so that the first screening plate 9 and the second screening plate 10 are switched to a state of being misaligned with the semicircular groove on the outer side of the fixed plate 802, so that the screened rubber gasket can no longer pass through the screening plate in the reverse direction. Finally, the first baffle 15 and the second baffle 16 are provided on the other side of the accommodating cavity 501 relative to the first screening plate 9 and the second screening plate 10, and the screening plate extends into the baffle. The first baffle 15 and the second baffle 16 are The plate 16 and the inner wall of the accommodating chamber 501 form a discharge channel. A return spring 14 is installed at one end of the first baffle plate 15 and the second baffle plate 16 corresponding to the first screening plate 9 and the second screening plate 10, so that as the cooling device 5 rotates, rubber gaskets of different sizes can be discharged outward from different positions corresponding to the discharge hopper, thereby achieving the effect of classifying and discharging the rubber gaskets. A rotating rod 12 is also installed inside the accommodating chamber 501. A stirring piece 1201 is arranged on the outer side of the rotating rod 12. The front and rear ends of the rotating rod 12 extend outwardly through the accommodating chamber 501. A limiting groove 102 is arranged on the inner wall of the cooling device 5 corresponding to the position of the rotating rod 12. The limiting groove 102 is annularly arranged, and a convex tooth 11 is arranged on the inner side. The outer end of the rotating rod 12 is provided with a gear tooth and extends into the limiting groove 102. When the cooling device 5 rotates, the rotating rod 12 can bite the convex tooth 11 so that the stirring piece 1201 contacts the rubber gasket, stirs it and separates it, thereby improving the cooling efficiency.

Claims

1. A rubber gasket processing cooling line, comprising a main housing (1), a fan (2), a discharge hopper (3), an exhaust port and a cooling device (5), characterized in that: The cooling device (5) is provided with a receiving chamber (501) inside, and a partition (6) is provided at a position adjacent to the receiving chamber (501) inside the cooling device (5), and the receiving chamber (501) is divided into a plurality of independent spaces by the partition (6). The fan (2) is installed on the right side outside the main housing (1), and the air outlet end of the fan (2) is connected to the main housing (1). An air inlet (101) is provided on a side inside the main housing (1) corresponding to the fan (2), and the air inlet (101) is rectangularly arranged. The discharge hopper (3) is arranged outside the main housing (1). At the lower end, the main body shell (1) is provided with a discharge port at a position corresponding to the discharge hopper (3), a first screening plate (9) and a second screening plate (10) are installed inside the accommodating cavity (501), screening grooves (901) are provided on both sides of the outside of the first screening plate (9), the screening grooves (901) are semicircularly arranged, and the second screening plate (10) and the first screening plate (9) are provided with screening grooves (901) on the outside in the same structure, and a fixing plate (502) is provided inside the cooling device (5) relative to the outside of the first screening plate (9) and the second screening plate (10); A filter screen (13) is installed on one side of the accommodating chamber (501) near the middle of the cooling device (5), and an exhaust port (4) is provided on one side of the filter screen (13). The exhaust port (4) extends outward from the front side of the main housing (1). A push plate (8) is installed inside the partition (6), and one end of the push plate (8) is arranged in an arc shape and passes through the interior of the partition (6). One end of the first sieve plate (9) and the second sieve plate (10) are arranged in an inclined surface and pass through the interior of the partition (6). An inclined groove ( 801), a sliding block (802) is arranged on the outer side of one end of the push plate (8) close to the outer edge of the cooling device (5), a sliding groove corresponding to the sliding block (802) is arranged inside the partition (6), and a spring is placed in the sliding groove, and a first baffle plate (15) and a second baffle plate (16) are arranged on the other side of the accommodating cavity (501) relative to the first sieve plate (9) and the second sieve plate (10), and a return spring (14) is installed inside the first baffle plate (15) and the second baffle plate (16) at one end corresponding to the first sieve plate (9) and the second sieve plate (10).

2. A rubber gasket processing cooling line as claimed in claim 1, characterized in that: The accommodating cavity (501) is arranged in a fan shape, and a plurality of the accommodating cavities (501) are arranged at equal intervals on the circumference inside the cooling device (5).

3. A rubber gasket processing cooling line as claimed in claim 1, characterized in that: The diameter of the screening groove (901) on the outer side of the outer second screening plate is smaller than that on the first screening plate (9).

4. A rubber gasket processing cooling line as claimed in claim 1, characterized in that: The fixing plate (502) is also provided with a semicircular groove which forms a complete circle with the screening grooves (901) on the first screening plate (9) and the second screening plate (10).

5. The rubber gasket processing cooling line according to claim 1, characterized in that: The inner inclined surface of the inclined groove (801) fits the inclined surface of the first screening plate (9), and one end of the push plate (8) corresponds to the second screening plate (10) and is also arranged in an inclined shape.

6. A rubber gasket processing cooling line as claimed in claim 1, characterized in that: The screening plate extends into the interior of the baffle plate, and the first baffle plate (15), the second baffle plate (16) and the inner wall of the accommodating chamber (501) form a discharge channel.

7. A rubber gasket processing cooling line as claimed in claim 1, characterized in that: A rotating rod (12) is also installed inside the accommodating chamber (501), and a stirring blade (1201) is arranged outside the rotating rod (12). Front and rear ends of the rotating rod (12) extend outwards and pass through the interior of the accommodating chamber (501).

8. The rubber gasket processing cooling line according to claim 1, characterized in that: A limiting groove (102) is provided on the inner wall of the cooling device (5) at a position corresponding to the rotating rod (12); the limiting groove (102) is annularly arranged and has a protruding tooth (11) on the inner side; and a gear tooth is provided on the outer end of the rotating rod (12) and extends into the limiting groove (102).

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