A rapid cooling device for optical cable production

Abstract

The invention relates to the technical field of cooling devices, and discloses a rapid cooling device for optical cable production, comprising a water supply component, a cooling component and a water removal component. The water supply component is used for circulating and conveying and collecting water flow of the cooling device, the cooling component is used for cooling the optical cable, and the water removal component is used for beating and recycling the water remaining on the optical cable after cooling. The optical cable enters the cooling component through a first transmission wheel, is cooled in a cooling bin in the cooling component and is cooled faster through a manifold. A power component and a circulation component promote the circulation of water between the cooling bin and the circulation bin. The water supply component realizes the water circulation inside the cooling component, thereby improving the cooling effect and saving water resources. After the cooling is completed, the optical cable enters the water removal component, and the water remaining on the optical cable sheath is beated and removed by the beating component, and is collected and used, so as to save water resources, and finally transported out through a fourth transmission wheel on the other side.

Description

Technical Field

[0001] The invention relates to the technical field of cooling devices, in particular to a rapid cooling device for optical cable production. Background Art

[0002] Optical cables can fully meet the performance specifications of optics, mechanics or environment. Optical cables are usually communication cable components that use one or more optical fibers placed in a sheath as transmission media and can be used individually or in groups. In the production process of optical cables, since the sheath needs to be melted at high temperature and covered on the optical fiber, in order to prevent the optical cable from shrinking during use, the optical cable must be fully cooled on the optical cable production line. At present, the cooling device of optical cables has the problems of slow cooling speed, poor cooling effect, water consumption and residual water in the sheath after cooling. Therefore, it is urgent to invent a rapid cooling device for optical cable production to solve the above problems. Summary of the invention

[0003] 1. Technical issues to be resolved

[0004] In view of the deficiencies in the prior art, the present invention provides a rapid cooling device for optical cable production.

[0005] (II) Technical solution

[0006] To achieve the above-mentioned solution, the present invention provides the following technical solutions: a rapid cooling device for optical cable production, comprising a water supply component, a cooling component and a water removal component, the water supply component is used to circulate and collect the water flow of the cooling equipment, the cooling component is used to cool the optical cable, and the water removal component is used to shake and recycle the water remaining on the optical cable after cooling, the cooling component and the water removal component are located above the water supply component, the cooling component is connected to the water removal component, the lowest point of the water removal component is higher than the highest point of the cooling component, the water supply component includes a water storage tank, a main pipe is provided above the middle of the water storage tank, a water pump is connected in the middle of the main pipe, a first water distribution pipe is connected above the water pump, the first water distribution pipe is used to distribute the water flow to both sides of the cooling component, a second water distribution pipe is connected above the first water distribution pipe, the second water distribution pipe is connected to a connecting pipe, and a water spray nozzle is fixedly installed below the connecting pipe.

[0007] Preferably, the cooling component includes two layers, the inner layer is a cooling bin, and the outer layer is a circulation bin. A first return pipe is connected between the circulation bin and the water storage bin. A first transmission wheel and a third transmission wheel are respectively provided above both ends of the circulation bin. A second transmission wheel is movably installed at both ends of the interior of the cooling bin. A manifold is provided in the cooling bin. Power components and circulation components are evenly arranged and installed on both sides of the cooling bin, and the power component is located above the circulation component.

[0008] Preferably, the water removal assembly includes a confluence bottom plate, a second return pipe is connected between the confluence bottom plate and the water storage tank, a side plate is fixedly installed on both sides above the confluence bottom plate, a fourth transmission wheel is fixedly installed at both ends between the two side plates, and a vibration assembly is provided between the two fourth transmission wheels.

[0009] Preferably, the second water distribution pipe is used to divert water from one side of the cooling assembly to the connecting pipe, and the connecting pipe is used to connect and transport the water in the second water distribution pipe to the water spray outlet. The lower part of the connecting pipe is located in the cooling bin, and the water spray outlet is located in the cooling bin.

[0010] Preferably, the power assembly includes a fin plate and a first rotating shaft. The fin plate is fan-shaped and thin in the middle and thick on both sides. The fin plate is fixedly connected to the first rotating shaft, and the first rotating shaft is movably mounted on the cooling bin.

[0011] Preferably, the circulation component includes a second rotating shaft, fan blades and a water ring. A transmission belt is movably connected between the first rotating shaft and the second rotating shaft. The fan blades are fixedly connected to the second rotating shaft. The water ring is fixedly connected to the fan blades. The water ring is movably installed on the cooling bin. When the fins rotate, the fan blades can be driven to rotate.

[0012] Preferably, the confluence plate is two rectangular pyramid shells that are symmetrical on both sides, a material hole is opened in the middle of the confluence plate, and confluence holes are opened on both sides of the material hole, and both the material hole and the confluence hole are circular openings.

[0013] Preferably, the manifold is located between the water spray port and the power assembly, the water spray port is directly opposite to the manifold hole on the manifold, and the manifold hole is directly opposite to the fin plate.

[0014] Preferably, the shock assembly includes a third rotating shaft, a winding wheel and a first connecting block, the winding wheel is fixedly mounted in the middle position of the third rotating shaft, two ends of the third rotating shaft are movably mounted on the fourth transmission wheel, second connecting blocks are provided on both sides of the winding wheel, a round hole is opened in the middle of the second connecting block, the second connecting block is fixedly connected to the third rotating shaft through the round hole, a limit rod is fixedly mounted on the upper and lower parts of the second connecting block, the limit rod is movably connected to the first connecting block, a limit spring is provided between the second connecting block and the first connecting block, two ends of the limit spring are respectively fixedly connected to the second connecting block and the first connecting block, the limit spring is sleeved on the outside of the limit rod, and a shock device is fixedly mounted on the first connecting block close to the winding wheel.

[0015] Preferably, the jars fixedly mounted on the upper and lower first connecting blocks are arranged in mirror symmetry, and the jars are arc-shaped.

[0016] (III) Beneficial effects

[0017] Compared with the prior art, the present invention provides a rapid cooling device for optical cable production, which has the following beneficial effects:

[0018] 1. The rapid cooling equipment for optical cable production is provided with a cooling component, which includes two layers, an inner layer being a cooling chamber, and an outer layer being a circulation chamber. The optical cable enters the cooling component through a first transmission wheel, is cooled in the cooling chamber in the cooling component, and is cooled faster through a manifold. The power component and the circulation component promote the circulation of water between the cooling chamber and the circulation chamber, and the water supply component realizes the water circulation inside the cooling component, thereby improving the cooling effect and saving water resources.

[0019] 2. The rapid cooling equipment for optical cable production is provided with a manifold, the water spray outlet is directly opposite to the manifold hole on the manifold, and the manifold is two rectangular pyramid shells that are symmetrical on the left and right. The manifold will gather the water flow and flow out from the material hole and the manifold hole. The water flow at the material hole and the manifold hole is accelerated due to the converging effect of the manifold. The accelerated water flow at the material hole means that more water flow contacts the optical cable per unit time, thereby accelerating the cooling speed of the optical cable.

[0020] 3. The rapid cooling equipment for optical cable production is provided with a power component and a circulation component. When the water flow at the material hole is accelerated, more water flows in contact with the optical cable per unit time, thereby accelerating the cooling speed of the optical cable. Because the confluence hole is directly opposite to the fin plate, the water flow at the confluence hole is accelerated, which increases the water flow velocity at the power component. The power component rotates under the action of the water flow, and the water flow promotes the increase of the rotation speed of the fin plate. When the fin plate rotates, it drives the first rotating shaft to rotate, and the rotation of the first rotating shaft drives the transmission belt to rotate. The rotation of the transmission belt drives the second rotating shaft to rotate. The rotation of the second rotating shaft drives the fan blades to rotate. The rotation of the fan blades drives the water ring on the cooling bin to rotate. When the fan blades rotate, they promote the water at the bottom of the cooling bin to flow into the circulation bin. The water in the circulation bin will gather at the bottom and flow into the water storage bin from the first return pipe, thereby forming a water circulation between the water supply component and the cooling component, which is convenient for continuous and rapid cooling of the optical cable, and at the same time, it is convenient for the recycling of water and water saving.

[0021] 4. The rapid cooling equipment for the production of optical cables is provided with a water removal component. The optical cable passes through the fourth transmission wheel on one side, passes through the winding wheel and winds around the winding wheel once. The residual water on the optical cable sheath is removed by the vibration component and collected for use, so as to save water resources. Finally, the water is transported out through the fourth transmission wheel on the other side.

[0022] 5. The rapid cooling equipment for optical cable production is provided with a shock component. The optical cable passes through the fourth transmission wheel on one side, passes through the winding wheel and winds around the winding wheel once. The optical cable on the winding wheel drives the winding wheel to rotate through friction. The rotation of the winding wheel drives the third rotating shaft to rotate. The rotation of the third rotating shaft drives the second connecting block to rotate. The rotation of the second connecting block drives the limit rod to rotate. The rotation of the limit rod drives the first connecting block to rotate. The rotation of the first connecting block drives the shock device to rotate. The rotation of the shock device will rotate and contact with the optical cable to strike the optical cable, thereby knocking water off the optical cable, so that the water is collected on the confluence bottom plate while cleaning the optical cable, and then flows into the water storage bin through the second return pipe for recycling, thereby saving water resources.

[0023] 6. The rapid cooling equipment for optical cable production is provided with a limit rod and a limit spring. When the jar hits the optical cable, the jar contacts the optical cable to make the first connecting block rotate around the limit rod, and the two ends of the limit spring are respectively fixedly connected to the second connecting block and the first connecting block. When the jar makes the first connecting block rotate around the limit rod, the first connecting block can be limited and reset, and the limit spring and the limit rod provide a buffer when the jar hits the optical cable to prevent damage to the optical cable. At the same time, it can also be suitable for hitting optical cables of different diameters.

[0024] 7. The rapid cooling equipment for optical cable production is provided with a water supply component to add water into the cooling bin until the manifold is covered. During the water adding process, the water in the cooling bin will flow into the circulation bin through the circulation component, and the water in the circulation bin will enter the water storage bin through the first return pipe. When the water pump is started, the water pump will flow the water in the water storage bin through the main pipe into the first water branch pipe. The water in the first water branch pipe will be diverted to the second water branch pipes on both sides of the cooling component through the first water branch pipe, and the water in the second water branch pipe will be diverted to the connecting pipe between the second water branch pipe and the water nozzle, and finally flow out from the water nozzle, so as to circulate and collect the water flow of the cooling equipment. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0026] Figure 2 This is a schematic diagram of the structure of the water supply component of the present invention;

[0027] Figure 3 It is a schematic diagram of the cooling assembly structure of the present invention;

[0028] Figure 4 This is a schematic diagram of the internal structure of the cooling bin of the present invention;

[0029] Figure 5 This is a schematic diagram of the water spray nozzle structure of the present invention;

[0030] Figure 6This is a schematic diagram of the connection structure between the power component and the circulation component of the present invention;

[0031] Figure 7 This is a schematic diagram of the structure of the busbar of the present invention;

[0032] Figure 8 This is a schematic diagram of the structure of the water removal component of the present invention;

[0033] Fig. 9 This is a schematic diagram of the structure of the shock assembly of the present invention;

[0034] Fig.10 It is a schematic diagram of the limit rod structure of the present invention.

[0035] In the figure: 100, water supply assembly; 101, water storage tank; 102, main pipe; 103, water pump; 104, first water distribution pipe; 105, second water distribution pipe; 106, connecting pipe; 107, water spray nozzle; 108, first return pipe; 109, second return pipe; 200, cooling assembly; 201, circulation tank; 202, cooling tank; 203, first transmission wheel; 204, second transmission wheel; 205, manifold; 206, power assembly; 207, circulation assembly; 208, third transmission wheel; 209 , material hole; 210, confluence hole; 211, fin plate; 212, first rotating shaft; 213, transmission belt; 214, second rotating shaft; 215, fan blade; 216, water ring; 300, dewatering assembly; 301, confluence bottom plate; 302, fourth transmission wheel; 303, jarring assembly; 304, side plate; 305, third rotating shaft; 306, winding wheel; 307, first connecting block; 308, jarring device; 309, limit rod; 310, second connecting block; 311, round hole; 312, limit spring. DETAILED DESCRIPTION

[0036] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0037] See also Figures 1 to 10A rapid cooling device for optical cable production includes a water supply component 100, a cooling component 200 and a water removal component 300. The water supply component 100 is used to circulate and collect water flow of the cooling device, the cooling component 200 is used to cool the optical cable, and the water removal component 300 is used to shake and recycle the water remaining on the optical cable after cooling. The cooling component 200 and the water removal component 300 are located above the water supply component 100, the cooling component 200 is connected to the water removal component 300, and the water removal component 300 is connected to the water supply component 100. 0 is higher than the highest point of the cooling assembly 200. The water supply assembly 100 includes a water storage tank 101. A main pipe 102 is provided above the middle of the water storage tank 101. A water pump 103 is connected in the middle of the main pipe 102. A first water distribution pipe 104 is connected above the water pump 103. The first water distribution pipe 104 is used to distribute water flow to both sides of the cooling assembly 200. A second water distribution pipe 105 is connected above the first water distribution pipe 104. The second water distribution pipe 105 is connected to a connecting pipe 106, and a water spray port 107 is fixedly installed below the connecting pipe 106.

[0038] The cooling component 200 includes two layers, the inner layer is the cooling bin 202, and the outer layer is the circulation bin 201. The first return pipe 108 is connected between the circulation bin 201 and the water storage bin 101. A first transmission wheel 203 and a third transmission wheel 208 are respectively provided above the two ends of the circulation bin 201. A second transmission wheel 204 is movably installed at both ends of the interior of the cooling bin 202. A manifold 205 is provided in the cooling bin 202. Power components 206 and circulation components 207 are evenly arranged on both sides of the cooling bin 202, and the power component 206 is located above the circulation component 207.

[0039] The water removal assembly 300 includes a confluence bottom plate 301, a second return pipe 109 is connected between the confluence bottom plate 301 and the water storage tank 101, a side plate 304 is fixedly installed on both sides above the confluence bottom plate 301, a fourth transmission wheel 302 is fixedly installed at both ends between the two side plates 304, and a shock assembly 303 is provided between the two fourth transmission wheels 302.

[0040] The second water distribution pipe 105 is used to divert water on one side of the cooling component 200 to the connecting pipe 106. The connecting pipe 106 is used to connect and transport the water in the second water distribution pipe 105 to the water spray port 107. The lower part of the connecting pipe 106 is located in the cooling bin 202, and the water spray port 107 is located in the cooling bin 202.

[0041] The power assembly 206 includes a fin 211 and a first rotating shaft 212 . The fin 211 is fan-shaped and thin in the middle and thick at both sides. The fin 211 is fixedly connected to the first rotating shaft 212 , and the first rotating shaft 212 is movably installed on the cooling chamber 202 .

[0042] The circulation component 207 includes a second rotating shaft 214, fan blades 215 and a water ring 216. A transmission belt 213 is movably connected between the first rotating shaft 212 and the second rotating shaft 214. The fan blades 215 are fixedly connected to the second rotating shaft 214. The water ring 216 is fixedly connected to the fan blades 215. The water ring 216 is movably installed on the cooling chamber 202. When the fin plate 211 rotates, the fan blades 215 can be driven to rotate.

[0043] The confluence plate 205 is two rectangular pyramid shells that are symmetrical on both sides. A material hole 209 is opened in the middle of the confluence plate 205, and confluence holes 210 are opened on both sides of the material hole 209. Both the material hole 209 and the confluence holes 210 are circular openings.

[0044] The manifold 205 is located between the water spray port 107 and the power assembly 206 . The water spray port 107 faces the manifold hole 210 on the manifold 205 , and the manifold hole 210 faces the fin plate 211 .

[0045] The jarring assembly 303 includes a third rotating shaft 305, a winding wheel 306 and a first connecting block 307. The winding wheel 306 is fixedly installed in the middle position of the third rotating shaft 305. Both ends of the third rotating shaft 305 are movably installed on the fourth transmission wheel 302. Second connecting blocks 310 are provided on both sides of the winding wheel 306. A circular hole 311 is opened in the middle of the second connecting block 310. The second connecting block 310 is fixedly connected to the third rotating shaft 305 through the circular hole 311. A limiting rod 309 is fixedly installed on the upper and lower sides of the second connecting block 310. The limiting rod 309 is movably connected to the first connecting block 307. A limiting spring 312 is provided between the second connecting block 310 and the first connecting block 307. Both ends of the limiting spring 312 are fixedly connected to the second connecting block 310 and the first connecting block 307 respectively. The limiting spring 312 is sleeved on the outside of the limiting rod 309. A jarring device 308 is fixedly installed on the side of the first connecting block 307 close to the winding wheel 306.

[0046] The jars 308 fixedly mounted on the upper and lower first connecting blocks 307 are arranged in a mirror-symmetrical manner, and the jars 308 are arc-shaped.

[0047] When in use, the optical cable passes through the first transmission wheel 203 into the cooling bin 202, passes through the second transmission wheel 204 on one side and the material hole 209 in the middle of the manifold 205, and then passes through the second transmission wheel 204 and the third transmission wheel 208 on the other side to enter the dewatering assembly 300, passes through the fourth transmission wheel 302 on one side, passes through the winding wheel 306 and winds around the winding wheel 306, and is finally transported out through the fourth transmission wheel 302 on the other side.

[0048] Water is added to the cooling chamber 202 until the manifold 205 is covered. During the water adding process, the water in the cooling chamber 202 will flow into the circulation chamber 201 through the circulation assembly 207, and the water in the circulation chamber 201 will enter the water storage chamber 101 through the first return pipe 108. The water pump 103 is started, and the water pump 103 will flow the water in the water storage chamber 101 through the main pipe 102 into the first water distribution pipe 104. The water in the first water distribution pipe 104 will be diverted to the second water distribution pipes 100 on both sides of the cooling assembly 200 through the first water distribution pipe 104. 05, the water in the second water distribution pipe 105 will be diverted to the connecting pipe 106 between the second water distribution pipe 105 and the water spray port 107, and finally flow out from the water spray port 107. Because the water spray port 107 is directly opposite to the confluence hole 210 on the confluence plate 205, and the confluence plate 205 is two rectangular pyramid shells that are symmetrical on the left and right, the confluence plate 205 will converge the water flow and flow out from the material hole 209 and the confluence hole 210. The water flow at the material hole 209 and the confluence hole 210 is accelerated due to the confluence effect of the confluence plate 205, and the material The water flow at the material hole 209 is accelerated, and the water flow in contact with the optical cable per unit time becomes more, which accelerates the cooling speed of the optical cable. Because the confluence hole 210 is directly opposite to the fin plate 211, the water flow at the confluence hole 210 is accelerated, which increases the water flow velocity at the power component 206. The power component 206 rotates under the action of the water flow, and the water flow promotes the increase of the rotation speed of the fin plate 211. When the fin plate 211 rotates, it drives the first rotating shaft 212 to rotate. The rotation of the first rotating shaft 212 drives the transmission belt 213 to rotate. The rotation of the transmission belt 213 drives the second rotating shaft 2 14 rotates, the rotation of the second rotating shaft 214 will drive the fan blades 215 to rotate, and the rotation of the fan blades 215 will drive the water ring 216 to rotate on the cooling chamber 202. When the fan blades 215 rotate, the water at the bottom of the cooling chamber 202 will be promoted to flow into the circulation chamber 201, and the water in the circulation chamber 201 will be collected at the bottom and flow into the water storage chamber 101 from the first return pipe 108, thereby forming a water circulation between the water supply component 100 and the cooling component 200, which is convenient for continuous and rapid cooling of the optical cable, and at the same time convenient for the recycling of water and saving water.

[0049] After the optical cable is cooled in the cooling assembly 200, it passes through the third transmission wheel 208 and enters the water removal assembly 300. The optical cable passes through the fourth transmission wheel 302 on one side, passes through the winding wheel 306 and winds around the winding wheel 306. The optical cable on the winding wheel 306 drives the winding wheel 306 to rotate through friction. The rotation of the winding wheel 306 drives the third rotating shaft 305 to rotate. The rotation of the third rotating shaft 305 drives the second connecting block 310 to rotate. The rotation of the second connecting block 310 drives the limiting rod 309 to rotate. The rotation of the limiting rod 309 drives the first connecting block 307 to rotate. The rotation of the first connecting block 307 drives the jar 308 to rotate. The jar 308 rotates and contacts with the optical cable to shake the optical cable, thereby knocking off the water on the optical cable, so that the optical cable is cleaned. While cleaning, the water is collected into the confluence bottom plate 301, and then flows into the water storage tank 101 through the second return pipe 109 for recycling, thereby saving water resources. When the jar 308 hits the optical cable, the jar 308 contacts the optical cable to make the first connecting block 307 rotate around the limiting rod 309, and the two ends of the limiting spring 312 are respectively fixedly connected to the second connecting block 310 and the first connecting block 307. When the jar 308 makes the first connecting block 307 rotate around the limiting rod 309, the first connecting block 307 can be limited and reset, and the limiting spring 312 and the limiting rod 309 provide a buffer when the jar 308 hits the optical cable to prevent damage to the optical cable. At the same time, it can also be suitable for hitting optical cables of different diameters.

[0050] That is, the optical cable enters the cooling assembly 200 through the first transmission wheel 203, is cooled in the cooling chamber 202 in the cooling assembly 200, and is accelerated to cool the optical cable through the manifold 205. The power assembly 206 and the circulation assembly 207 promote the circulation of water between the cooling chamber 202 and the circulation chamber 201. The water supply assembly 100 realizes the water circulation inside the cooling assembly 200, thereby improving the cooling effect and saving water resources. After the cooling is completed, the optical cable enters the water removal assembly 300 through the second transmission wheel 204 and the third transmission wheel 208 on the other side. The optical cable passes through the fourth transmission wheel 302 on one side, passes through the winding wheel 306 and is wound around the winding wheel 306. The water remaining on the optical cable sheath is removed by the vibration assembly 303, and is collected and used to save water resources. Finally, it is transported out through the fourth transmission wheel 302 on the other side.

[0051] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A rapid cooling device for optical cable production, comprising a water supply component (100), a cooling component (200) and a water removal component (300), wherein the water supply component (100) is used to circulate and collect water flow of the cooling device, the cooling component (200) is used to cool the optical cable, and the water removal component (300) is used to shake and recycle the water remaining on the optical cable after cooling, characterized in that: The cooling component (200) and the water removal component (300) are located above the water supply component (100). The cooling component (200) is connected to the water removal component (300). The lowest point of the water removal component (300) is higher than the highest point of the cooling component (200). The water supply component (100) comprises a water storage tank (101). A main pipe (102) is provided above the middle of the water storage tank (101). A water pump (103) is connected in the middle of the main pipe (102). A first water distribution pipe (104) is connected above the water pump (103). The first water distribution pipe (104) is used to distribute water flow to two sides of the cooling component (200). A second water distribution pipe (105) is connected above the first water distribution pipe (104). The second water distribution pipe (105) is connected to a connecting pipe (106). A water spray port (107) is fixedly installed below the connecting pipe (106). The cooling component (200) comprises two layers, the inner layer being a cooling bin (202) and the outer layer being a circulation bin (201); a first return pipe (108) is connected between the circulation bin (201) and the water storage bin (101); a first transmission wheel (203) and a third transmission wheel (208) are respectively provided above both ends of the circulation bin (201); a second transmission wheel (204) is movably installed at both ends of the interior of the cooling bin (202); a conduit (205) is provided in the cooling bin (202); power components (206) and circulation components (207) are evenly arranged and installed on both sides of the cooling bin (202); the power components (206) are located above the circulation components (207); The water removal assembly (300) comprises a confluence bottom plate (301), a second return pipe (109) is connected between the confluence bottom plate (301) and the water storage bin (101), a side plate (304) is fixedly mounted on both sides above the confluence bottom plate (301), a fourth transmission wheel (302) is fixedly mounted on both ends between the two side plates (304), and a shock assembly (303) is provided between the two fourth transmission wheels (302); The second water distribution pipe (105) is used to distribute water on one side of the cooling assembly (200) to the connecting pipe (106); the connecting pipe (106) is used to connect and transport water in the second water distribution pipe (105) to the water spray port (107); the lower part of the connecting pipe (106) is located in the cooling bin (202); and the water spray port (107) is located in the cooling bin (202); The power assembly (206) comprises a fin plate (211) and a first rotating shaft (212); the fin plate (211) is fan-shaped and thin in the middle and thick at both sides; the fin plate (211) is fixedly connected to the first rotating shaft (212); and the first rotating shaft (212) is movably mounted on the cooling bin (202); The circulation component (207) comprises a second rotating shaft (214), a fan blade (215) and a water-passing ring (216); a transmission belt (213) is movably connected between the first rotating shaft (212) and the second rotating shaft (214); the fan blade (215) is fixedly connected to the second rotating shaft (214); the water-passing ring (216) is fixedly connected to the fan blade (215); the water-passing ring (216) is movably mounted on the cooling bin (202); when the fin plate (211) rotates, the fan blade (215) can be driven to rotate; The confluence plate (205) is two rectangular pyramid shells that are bilaterally symmetrical. A material hole (209) is opened in the middle of the confluence plate (205). Confluence holes (210) are opened on both sides of the material hole (209). Both the material hole (209) and the confluence holes (210) are circular openings. The manifold (205) is located between the water spray port (107) and the power assembly (206), the water spray port (107) is directly opposite to the manifold hole (210) on the manifold (205), and the manifold hole (210) is directly opposite to the fin plate (211); The striking assembly (303) comprises a third rotating shaft (305), a winding wheel (306) and a first connecting block (307). The winding wheel (306) is fixedly mounted at a middle position of the third rotating shaft (305). Both ends of the third rotating shaft (305) are movably mounted on a fourth transmission wheel (302). Second connecting blocks (310) are provided on both sides of the winding wheel (306). A circular hole (311) is provided in the middle of the second connecting block (310). The second connecting block (310) is fixedly connected to the third rotating shaft (305) through the circular hole (311). A limiting rod (309) is fixedly installed on the upper and lower sides of the connecting block (310), the limiting rod (309) is movably connected to the first connecting block (307), a limiting spring (312) is provided between the second connecting block (310) and the first connecting block (307), two ends of the limiting spring (312) are respectively fixedly connected to the second connecting block (310) and the first connecting block (307), the limiting spring (312) is sleeved on the outer side of the limiting rod (309), and a jar (308) is fixedly installed on the side of the first connecting block (307) close to the winding wheel (306); The jars (308) fixedly mounted on the upper and lower first connection blocks (307) are arranged in a mirror-symmetrical manner, and the jars (308) are arc-shaped.

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