A cooling pusher for potassium sulfate transportation

Abstract

A cooling pusher for conveying potassium sulfate relates to the technical field of cooling pushers, comprising a support base, a shell fixedly provided on the top of the support base, end covers detachably provided at both ends of the shell, a water-cooling jacket fixedly provided on the outer wall of the shell, a hollow shaft rotatably provided inside the shell, spiral blades fixedly provided on the outer wall of the hollow shaft, a plurality of fixed aggregate boxes axially provided on the outer wall of the hollow shaft, the top of the aggregate box is open and in frictional contact with the inner wall of the shell, a spiral plate fixedly provided at the end of the aggregate box in frictional contact with the inner wall of the shell and with the same rotation direction as the spiral blades, a material trough connected to the inner cavity of the aggregate box is provided on the top of the spiral plate, and a push plate is provided slidingly inside the aggregate box. The present invention solves the problems that the existing cooling pusher requires a long pushing distance to cool potassium sulfate particles, resulting in a long cooling cycle and large limitations on equipment installation space; and the problem that the contact uniformity between the potassium sulfate particles and the shell is poor, resulting in poor cooling effect of the potassium sulfate particles.

Description

Technical Field

[0001] The invention relates to the technical field of cooling pushers, in particular to a cooling pusher for conveying potassium sulfate. Background Art

[0002] In the potassium sulfate granule production process, the cooling pusher is a key post-processing device, primarily used for cooling and conveying the material after high-temperature granulation. The cooling pusher uses a screw propulsion mechanism to slowly push the hot potassium sulfate granules (typically 80-120°C) to the discharge end. Simultaneously, a water-cooled jacket provides heat exchange, lowering the granule temperature to 30-50°C, ensuring physical stability and preventing agglomeration.

[0003] The existing cooling pusher gradually exposed its shortcomings during use, mainly in the following aspects:

[0004] First, the pushing distance required for cooling potassium sulfate particles is long, resulting in a long cooling cycle and large limitations on the equipment installation space. Specifically, a water-cooling jacket structure is installed on the outer wall of the pusher shell. When the spiral blades push the potassium sulfate particles in the shell, the potassium sulfate particles are in contact with the shell for cooling. Since the material filling rate is only 30%~50% when the spiral blades are running, the actual contact area between the potassium sulfate particles and the inner wall of the shell is limited, and the effective heat exchange efficiency is low. In order to meet the cooling requirements, the pushing distance of the potassium sulfate material needs to be greatly extended. However, this not only significantly increases the cooling cycle and affects production efficiency, but also increases the limitations of the installation space due to the increase in equipment length, which affects the on-site layout.

[0005] Second, the contact uniformity between the potassium sulfate particles and the shell is poor, resulting in poor cooling effect of the potassium sulfate particles. Specifically, in the process of the spiral blades pushing the potassium sulfate particles to move, the material is in a stable and continuous pushing state in the shell, and the relative movement between the particles is small. Therefore, the contact between the potassium sulfate particles and the inner wall of the shell is uneven, making it difficult to achieve rapid and uniform cooling of the potassium sulfate particles, resulting in poor cooling effect of the potassium sulfate particles.

[0006] In summary, the existing technology has obvious inconveniences and defects in actual use, so it is necessary to improve it. Summary of the Invention

[0007] In response to the shortcomings of the prior art, the present invention aims to provide a cooling pusher for conveying potassium sulfate. This device can increase the contact area between the potassium sulfate particles and the inner wall of the shell, significantly improving the effective heat exchange efficiency at the same pushing distance. Thanks to this improvement, the pushing distance required for the device to cool the potassium sulfate particles is significantly shortened, effectively reducing the cooling cycle and also reducing the equipment's installation space requirements.

[0008] The equipment can flip the potassium sulfate particles during the pushing process, which improves the contact condition between the potassium sulfate particles and the inner wall of the shell, allowing the material to continuously and alternately contact the cooling surface, achieving a faster and more uniform cooling effect on the potassium sulfate particles.

[0009] In order to solve the above problems, the present invention provides the following technical solutions:

[0010] A cooling pusher for conveying potassium sulfate, comprising a support base, a shell fixedly provided on the top of the support base, end covers detachably provided at both ends of the shell, a water-cooling jacket fixedly provided on the outer wall of the shell, a hollow shaft rotatably provided inside the shell, spiral blades fixedly provided on the outer wall of the hollow shaft, a plurality of fixedly provided aggregate boxes axially provided on the outer wall of the hollow shaft, the top of the aggregate box being open and in frictional contact with the inner wall of the shell, a spiral plate fixedly provided at the end of the aggregate box in frictional contact with the inner wall of the shell and having the same rotation direction as the spiral blade, A material trough connected to the inner cavity of the material collection box is provided on the top of the spiral plate, a push plate is slidingly provided in the material collection box, a fixed tube is fixed inside the hollow shaft, one end of the fixed tube passes through the end cover and the water-cooling jacket and is connected to the external air source, an air distribution box intermittently connected to the fixed tube is fixed at the end of the material collection box, a plurality of injection pipes are fixed on the top of the air distribution box, one end of the injection pipe passes through the upper end of the material collection box and extends to the interior, the spiral plate is fixedly connected to the hollow shaft through a connecting plate, and a material shifting plate is fixed at the end of the connecting plate.

[0011] As an optimized solution, a plurality of support tubes are fixedly provided at the bottom of the aggregate box, a sliding rod is provided in the support tube, the top end of the sliding rod passes through the support tube upward and is fixedly connected to the push plate, the sliding rod is slidably connected to the support tube, and a plurality of cams are fixedly provided on the outer wall of the fixed tube, and the bottom end of the sliding rod is in friction contact with the outer wall of the cam.

[0012] As an optimized solution, a stop plate is fixedly provided on the outer wall of the sliding rod, and a compression spring is sleeved on the outer wall of the sliding rod, with both ends of the compression spring correspondingly abutting against the support tube and the stop plate.

[0013] As an optimized solution, the outer wall of the fixed tube is sleeved with a plurality of rotatable rotating sleeves, the inner wall of the rotating sleeve is embedded with a plurality of sealing rings that rub against the outer wall of the fixed tube, the outer wall of the fixed tube located inside the sealing ring is penetrated by an arc-shaped ventilation groove, the outer wall of the rotating sleeve is fixed with a ventilation pipe, one end of the ventilation pipe passes through the rotating sleeve and the sealing ring and is in friction contact with the outer wall of the fixed tube, and the other end of the ventilation pipe passes through the hollow shaft and is connected to the air distribution box.

[0014] As an optimized solution, a plurality of fixing plates are fixedly provided on the outer wall of the rotating sleeve, and the fixing plates are detachably connected to the hollow shaft.

[0015] As an optimized solution, a one-way valve is provided on the ventilation pipe.

[0016] As an optimized solution, one end of the hollow shaft is rotatably connected to one of the end covers, and the other end of the hollow shaft passes through the other end cover and is rotatably connected thereto. A drive motor is fixedly provided on the top of the support base, and sprockets are fixedly provided on the output end of the drive motor and the outer wall of the hollow shaft, and the two sprockets are connected by a chain.

[0017] As an optimized solution, a fixing frame is fixed on the top of the support base, one end of the fixing tube is sealed and extends to the outside of the hollow shaft and is fixedly connected to the fixing frame, and the fixing tube is fixedly connected to one of the end covers.

[0018] As an optimized solution, the water-cooling jacket is fixedly connected to the support base via a plurality of support frames.

[0019] As an optimized solution, the upper outer wall and the lower outer wall of the shell are respectively fixed with a feed pipe and a discharge pipe which are connected, and the upper outer wall and the lower outer wall of the water-cooling jacket are respectively fixed with a water outlet pipe and a water inlet pipe which are connected.

[0020] Compared with the prior art, the present invention has the following beneficial effects:

[0021] 1. The driving motor drives the hollow shaft and spiral blades to rotate. The spiral blades push the potassium sulfate particles in the shell. The cooling water in the water-cooling jacket exchanges heat with the shell. The pushed potassium sulfate particles contact the inner wall of the shell for cooling. The hollow shaft drives the aggregate box and the spiral plate to rotate when rotating. During the process in which the bottom end of the sliding rod contacts the return area and the base circle area of ​​the cam in succession, the spiral plate continues to insert into the material in the shell, and the material enters the trough of the spiral plate. When the aggregate box is lower than the material height inside the shell, the material in the trough enters the aggregate box. When the aggregate box rotates to the bottom, the filling inside the aggregate box is completed (in this process, the rotating sleeve rotates synchronously with the hollow shaft, but the vent pipe orifice is not connected to the arc vent groove). After that, the hollow shaft continues to rotate. During the process in which the bottom end of the sliding rod contacts the push area of ​​the cam, the vent pipe orifice overlaps with the arc vent groove The pressurized gas in the fixed pipe enters the air distribution box through the vent pipe and is ejected by the injection pipe. The material in the aggregate box is blown into the spiral plate by the pressurized gas and moves along the spiral plate. During the movement of the spiral plate, the material contacts the inner wall of the shell for cooling. At the same time, the sliding rod drives the push plate to slide outward under the push of the cam push area, and then pushes the material in the aggregate box outward, thereby facilitating the blowing out of the material in the aggregate box, and the material blown out from the spiral plate re-enters the interior of the shell. When the sliding rod passes through the cam return area, the push plate slides inward and resets. This equipment can increase the contact area between the potassium sulfate particles and the inner wall of the shell. Under the same pushing distance, the effective heat exchange efficiency is greatly improved. Thanks to this improvement, the pushing distance required for the equipment to cool the potassium sulfate particles is greatly shortened, which not only effectively reduces the cooling cycle, but also reduces the equipment's demand for installation space.

[0022] 2. When the pressurized gas provided by the external gas source passes through the fixed pipe, part of the fixed pipe is cooled because it is in the water-cooling jacket. The low-temperature gas is used to blow the material, further accelerating the cooling speed of the potassium sulfate particles.

[0023] 3. When the hollow shaft rotates, it drives the material plate to rotate, and the material plate turns over the material in the shell. The equipment can turn over the potassium sulfate particles in the process of pushing the potassium sulfate particles, which improves the contact condition between the potassium sulfate particles and the inner wall of the shell, and makes the material constantly and alternately contact with the cooling surface, achieving a faster and more uniform cooling effect on the potassium sulfate particles. BRIEF DESCRIPTION OF THE DRAWINGS

[0024] To more clearly illustrate the specific embodiments of the present invention or the technical solutions in the prior art, the following briefly describes the drawings required for the specific embodiments or the description of the prior art. Similar elements or parts are generally identified by similar reference numerals throughout the drawings. Elements or parts in the drawings are not necessarily drawn to scale.

[0025] Figure 1 It is a structural schematic diagram of the present invention;

[0026] Figure 2 This is a schematic diagram of the structure inside the housing of the present invention;

[0027] Figure 3 It is a structural schematic diagram of the aggregate box and spiral plate of the present invention;

[0028] Figure 4 It is a structural schematic diagram of the material diverter plate of the present invention;

[0029] Figure 5 This is a schematic diagram of the structure inside the hollow shaft of the present invention;

[0030] Figure 6 This is a structural diagram of the push plate driving method of the present invention;

[0031] Figure 7 is a cross-sectional view of the support tube of the present invention;

[0032] Figure 8 This is a schematic diagram of the internal structure of the rotating sleeve of the present invention;

[0033] Figure 9 It is a structural schematic diagram of the fixed tube of the present invention;

[0034] Figure 10 It is a structural schematic diagram of the hollow shaft driving method of the present invention.

[0035] In the figure: 1-support base; 2-end cover; 3-shell; 4-feed pipe; 5-water outlet pipe; 6-water cooling jacket; 7-discharge pipe; 8-water inlet pipe; 9-spiral blade; 10-fixed pipe; 11-hollow shaft; 12-feed trough; 13-spiral plate; 14-collecting box; 15-push plate; 16-injection pipe; 17-connecting plate; 18-feeding plate; 19-air distribution box; 20-stop plate; 21-compression spring; 22-sliding rod; 23-one-way valve; 24-support cylinder; 25-vent pipe; 26-fixed plate; 27-cam; 28-arc-shaped vent groove; 29-rotating sleeve; 30-sealing ring; 31-fixed frame; 32-chain; 33-sprocket; 34-support frame; 35-drive motor. DETAILED DESCRIPTION

[0036] The following embodiments of the technical solution of the present invention will be described in detail with reference to the accompanying drawings. The following embodiments are only used to more clearly illustrate the technical solution of the present invention and are therefore only examples and are not intended to limit the scope of protection of the present invention.

[0037] like Figures 1 to 10As shown, a cooling pusher for conveying potassium sulfate includes a support base 1, a shell 3 is fixedly provided on the top of the support base 1, end covers 2 are detachably provided at both ends of the shell 3, a water-cooling jacket 6 is fixedly provided on the outer wall of the shell 3, a hollow shaft 11 is rotatably provided inside the shell 3, a spiral blade 9 is fixedly provided on the outer wall of the hollow shaft 11, and a plurality of fixedly provided collection boxes 14 are axially provided on the outer wall of the hollow shaft 11, the top of the collection box 14 is opened and in friction contact with the inner wall of the shell 3, a spiral plate 13 is fixedly provided at the end of the collection box 14, which is in friction contact with the inner wall of the shell 3 and has the same rotation direction as the spiral blade 9, and a spiral plate 13 is provided on the top of the spiral plate 13. There is a material trough 12 connected to the inner cavity of the collection box 14, a push plate 15 is slidably provided in the collection box 14, a fixed tube 10 is fixed inside the hollow shaft 11, one end of the fixed tube 10 passes through the end cover 2 and the water-cooling jacket 6 and is connected to the external air source, an air distribution box 19 is fixed at the end of the collection box 14 and is intermittently connected to the fixed tube 10, a plurality of injection pipes 16 are fixed on the top of the air distribution box 19, one end of the injection pipe 16 passes through the upper end of the collection box 14 and extends to the inside, the spiral plate 13 is fixedly connected to the hollow shaft 11 through the connecting plate 17, and a material shifting plate 18 is fixed at the end of the connecting plate 17.

[0038] A plurality of support tubes 24 are fixedly provided at the bottom of the aggregate box 14, and a sliding rod 22 is provided in the support tube 24. The top end of the sliding rod 22 passes through the support tube 24 upward and is fixedly connected to the push plate 15. The sliding rod 22 is slidably connected to the support tube 24. A plurality of cams 27 are fixedly provided on the outer wall of the fixed tube 10, and the bottom end of the sliding rod 22 is in friction contact with the outer wall of the cam 27.

[0039] A stop plate 20 is fixedly provided on the outer wall of the sliding rod 22 , and a compression spring 21 is sleeved on the outer wall of the sliding rod 22 . Two ends of the compression spring 21 are correspondingly pressed against the support tube 24 and the stop plate 20 .

[0040] The outer wall of the fixed tube 10 is sheathed with a plurality of rotatable rotating sleeves 29. The inner wall of the rotating sleeve 29 is embedded with a plurality of sealing rings 30 that rub against the outer wall of the fixed tube 10. The outer wall of the fixed tube 10 located inside the sealing ring 30 is penetrated by an arc-shaped ventilation groove 28. The outer wall of the rotating sleeve 29 is fixed with a ventilation pipe 25. One end of the ventilation pipe 25 passes through the rotating sleeve 29 and the sealing ring 30 and is in frictional contact with the outer wall of the fixed tube 10. The other end of the ventilation pipe 25 passes through the hollow shaft 11 and is connected to the air distribution box 19.

[0041] When the sliding rod 22 contacts the push stroke area of ​​the cam 27, the push plate 15 slides outward, and the pipe mouth of the vent pipe 25 is connected to the arc-shaped vent groove 28. When the sliding rod 22 contacts the return stroke area of ​​the cam 27, the push plate 15 slides inward, and the pipe mouth of the vent pipe 25 is not connected to the arc-shaped vent groove 28. When the sliding rod 22 contacts the base circle area of ​​the cam 27, the push plate 15 does not move, and the pipe mouth of the vent pipe 25 is not connected to the arc-shaped vent groove 28.

[0042] A plurality of fixing plates 26 are fixedly provided on the outer wall of the rotating sleeve 29 , and the fixing plates 26 are detachably connected to the hollow shaft 11 .

[0043] A one-way valve 23 is provided on the vent pipe 25 .

[0044] One end of the hollow shaft 11 is rotatably connected to one of the end covers 2, and the other end of the hollow shaft 11 passes through the other end cover 2 and is rotatably connected thereto. A drive motor 35 is fixedly provided on the top of the support base 1, and a sprocket 33 is fixedly provided on the output end of the drive motor 35 and the outer wall of the hollow shaft 11. The two sprockets 33 are connected by a chain 32.

[0045] A fixing frame 31 is fixed on the top of the support base 1 , one end of the fixing tube 10 is sealed and extends to the outside of the hollow shaft 11 and is fixedly connected to the fixing frame 31 , and the fixing tube 10 is fixedly connected to one of the end covers 2 .

[0046] The water-cooling jacket 6 is fixedly connected to the support base 1 through a plurality of support frames 34 .

[0047] The upper outer wall and the lower outer wall of the shell 3 are respectively fixed with a feed pipe 4 and a discharge pipe 7 which are connected. The upper outer wall and the lower outer wall of the water cooling jacket 6 are respectively fixed with a water outlet pipe 5 and a water inlet pipe 8 which are connected.

[0048] The inner diameter of the nozzle of the air jet pipe 16 is smaller than the particle size of the potassium sulfate particles.

[0049] The working principle of this device is:

[0050] The driving motor 35 drives the hollow shaft 11 and the spiral blade 9 to rotate, and the spiral blade 9 pushes the potassium sulfate particles in the shell 3. The cooling water in the water-cooling jacket 6 exchanges heat with the shell 3, and the pushed potassium sulfate particles contact the inner wall of the shell 3 for cooling. When the hollow shaft 11 rotates, it drives the collection box 14 and the spiral plate 13 to rotate. During the process in which the bottom end of the sliding rod 22 contacts the return area and the base circle area of ​​the cam 27 in succession, the spiral plate 13 continues to insert into the material in the shell 3, and the material enters When the material height of the collecting box 14 is lower than the material height inside the shell 3 in the material trough 12 of the spiral plate 13, the material in the material trough 12 enters the collecting box 14. When the collecting box 14 rotates to the bottom, the filling inside the collecting box 14 is completed (in this process, the rotating sleeve 29 rotates synchronously with the hollow shaft 11, but the vent pipe 25 is not connected to the arc vent groove 28). After that, the hollow shaft 11 continues to rotate. When the bottom end of the sliding rod 22 contacts the push area of ​​the cam 27, the vent pipe 25 is in contact with the arc vent groove 28. The arc-shaped ventilation grooves 28 overlap, and the pressurized gas in the fixed pipe 10 enters the air distribution box 19 through the ventilation pipe 25 and is ejected by the injection pipe 16. The material in the collection box 14 is blown into the spiral plate 13 by the pressurized gas and moves along the spiral plate 13. During the movement of the spiral plate 13, the material contacts the inner wall of the shell 3 for cooling. At the same time, the sliding rod 22 drives the push plate 15 to slide outward under the push of the cam 27 pushing area, thereby pushing the material in the collection box 14 outward, thereby facilitating the material in the collection box 14 to be blown out, and the material blown out from the spiral plate 13 re-enters the interior of the shell 3. When the sliding rod 22 passes the return area of ​​the cam 27, the push plate 15 slides inward and resets. This equipment can increase the contact area between the potassium sulfate particles and the inner wall of the shell 3. Under the same pushing distance, the effective heat exchange efficiency is greatly improved. Thanks to this improvement, the pushing distance required for cooling the potassium sulfate particles by the equipment is greatly shortened, which not only effectively reduces the cooling cycle, but also reduces the installation space requirement of the equipment.

[0051] When the pressurized gas provided by the external gas source passes through the fixed tube 10, a part of the fixed tube 10 is cooled because the part is in the water-cooling jacket 6. The low-temperature gas is used to blow the material, further accelerating the cooling speed of the potassium sulfate particles.

[0052] When the hollow shaft 11 rotates, it drives the material plate 18 to rotate, and the material plate 18 flips the material in the shell 3. The equipment can flip the potassium sulfate particles in the process of pushing the potassium sulfate particles, thereby improving the contact condition between the potassium sulfate particles and the inner wall of the shell 3, so that the material continuously and alternately contacts the cooling surface, thereby achieving a faster and more uniform cooling effect on the potassium sulfate particles.

[0053] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or make equivalent replacements for some or all of the technical features therein. These modifications or replacements do not deviate the essence of the corresponding technical solutions from the scope of the technical solutions of the embodiments of the present invention, and they should all be included in the scope of the claims and description of the present invention.

Claims

1. A cooling pusher for potassium sulfate transportation, characterized in that: The invention comprises a support base (1), a shell (3) is fixedly provided on the top of the support base (1), end covers (2) are detachably provided at both ends of the shell (3), a water-cooling jacket (6) is fixedly provided on the outer wall of the shell (3), a hollow shaft (11) is rotatably provided inside the shell (3), a spiral blade (9) is fixedly provided on the outer wall of the hollow shaft (11), a plurality of fixedly provided aggregate boxes (14) are axially provided on the outer wall of the hollow shaft (11), the top of the aggregate box (14) is open and in frictional contact with the inner wall of the shell (3), a spiral plate (13) is fixedly provided at the end of the aggregate box (14) in frictional contact with the inner wall of the shell (3) and in the same rotation direction as the spiral blade (9), and the top of the spiral plate (13) is provided with a spiral plate (13) which is in frictional contact with the inner wall of the shell (3) and has the same rotation direction as the spiral blade (9). ) a material trough (12) connected to the inner cavity, a push plate (15) is slidingly provided in the collecting box (14), a fixed tube (10) is fixed inside the hollow shaft (11), one end of the fixed tube (10) passes through the end cover (2) and the water-cooling jacket (6) and is connected to the external air source, an air distribution box (19) is fixed at the end of the collecting box (14) and is intermittently connected to the fixed tube (10), a plurality of connecting air injection tubes (16) are fixed on the top of the air distribution box (19), one end of the air injection tube (16) passes through the upper end of the collecting box (14) and extends to the interior, the spiral plate (13) is fixedly connected to the hollow shaft (11) through a connecting plate (17), and a material stripping plate (18) is fixed at the end of the connecting plate (17); The bottom of the collecting box (14) is fixedly provided with a plurality of support cylinders (24) extending therethrough, a sliding rod (22) is provided in the support cylinder (24), the top end of the sliding rod (22) passes through the support cylinder (24) upward and is fixedly connected to the push plate (15), the sliding rod (22) is slidably connected to the support cylinder (24), the outer wall of the fixed tube (10) is fixedly provided with a plurality of cams (27), and the bottom end of the sliding rod (22) is in frictional contact with the outer wall of the cam (27); One end of the hollow shaft (11) is rotatably connected to one of the end covers (2), and the other end of the hollow shaft (11) passes through the other end cover (2) and is rotatably connected thereto. A driving motor (35) is fixedly provided on the top of the support base (1), and sprockets (33) are fixedly provided on the output end of the driving motor (35) and the outer wall of the hollow shaft (11), and the two sprockets (33) are connected by a chain (32).

2. The cooling pusher for potassium sulfate transportation according to claim 1, characterized in that: A stop plate (20) is fixedly provided on the outer wall of the sliding rod (22), and a compression spring (21) is sleeved on the outer wall of the sliding rod (22), with two ends of the compression spring (21) correspondingly abutting against the support tube (24) and the stop plate (20).

3. The cooling pusher for potassium sulfate transportation according to claim 1, characterized in that: The outer wall of the fixed tube (10) is sleeved with a plurality of rotatable rotating sleeves (29), and the inner wall of the rotating sleeve (29) is embedded with a plurality of sealing rings (30) that rub against the outer wall of the fixed tube (10). The outer wall of the fixed tube (10) is provided with an arc-shaped ventilation groove (28) at a position inside the sealing ring (30). The outer wall of the rotating sleeve (29) is fixed with a ventilation pipe (25), one end of the ventilation pipe (25) passes through the rotating sleeve (29) and the sealing ring (30) and is in friction contact with the outer wall of the fixed tube (10), and the other end of the ventilation pipe (25) passes through the hollow shaft (11) and is connected to the air distribution box (19).

4. A cooling pusher for potassium sulfate transportation according to claim 3, characterized in that: A plurality of fixing plates (26) are fixedly provided on the outer wall of the rotating sleeve (29), and the fixing plates (26) are detachably connected to the hollow shaft (11).

5. The cooling pusher for conveying potassium sulfate according to claim 3, characterized in that: A one-way valve (23) is provided on the vent pipe (25).

6. The cooling pusher for potassium sulfate transportation according to claim 1, characterized in that: A fixing frame (31) is fixedly provided on the top of the support base (1), one end of the fixing tube (10) is sealed and extends to the outside of the hollow shaft (11) and is fixedly connected to the fixing frame (31), and the fixing tube (10) is fixedly connected to one of the end covers (2).

7. The cooling pusher for conveying potassium sulfate according to claim 1, characterized in that: The water-cooling jacket (6) is fixedly connected to the support base (1) via a plurality of support frames (34).

8. The cooling pusher for conveying potassium sulfate according to claim 1, characterized in that: The upper outer wall and the lower outer wall of the shell (3) are respectively fixed with a feed pipe (4) and a discharge pipe (7) which are arranged in communication, and the upper outer wall and the lower outer wall of the water-cooling jacket (6) are respectively fixed with a water outlet pipe (5) and a water inlet pipe (8) which are arranged in communication.

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