Integrated filler module water-saving and mist-eliminating cooling tower

Abstract

This invention discloses an integrated packed module water-saving and defogging cooling tower, belonging to the field of cooling tower technology. It addresses the problems of traditional cooling towers, such as significant cooling water evaporation and loss, high exhaust moisture content leading to white mist formation and water waste during direct contact heat exchange. The invention includes a tower body with multiple air intakes on its outer side, a lifting frame fixedly connected to the bottom, and an air outlet at the top. A circular hole is formed on the outer side of the tower body, with a water inlet pipe fixedly connected inside. An indirect heat exchange assembly is also installed inside the tower body. This integrated packed module water-saving and defogging cooling tower features a structure combining a dry channel and a spiral pipe, enabling completely isolated heat exchange between the spray water and cooling air. The spray water flows inside the spiral pipe, while the cooling air flows in the dry channel, resulting in indirect heat exchange and significantly improving the water-saving and defogging effect of the cooling tower.

Description

Technical Field

[0001] This invention relates to the field of cooling tower technology, and in particular to an integrated packing module water-saving and mist-eliminating cooling tower. Background Technology

[0002] A cooling tower is a device that uses water as a circulating coolant to absorb heat from a system and release it into the atmosphere. The device is generally barrel-shaped, hence the name cooling tower. When there is no natural water body such as a river, lake, or sea for direct cooling, a cooling tower is needed. The function of a cooling tower is to exchange heat between the cooling water carrying waste heat and the air inside the tower, so that the waste heat is transferred to the air and dissipated into the atmosphere.

[0003] Traditional cooling towers generally use a direct contact heat exchange method between cooling water and air. After direct heat exchange, the exhaust gas has extremely high humidity and contains a large amount of saturated water vapor. When the ambient temperature is low, it is very easy to condense and form obvious white mist, which can easily cause problems such as slippery ground and condensation around the tower. In addition, high humidity exhaust will also exacerbate the accumulation of moisture in the surrounding area, making it difficult to meet the requirements of water conservation, environmental protection and low mist emission. Summary of the Invention

[0004] This invention discloses an integrated packing module water-saving and defogging cooling tower, which aims to solve the technical problems of water waste caused by the large amount of cooling water evaporation and loss and the high moisture content of exhaust gas during the direct contact heat exchange process of traditional cooling towers.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: An integrated packing module water-saving and defogging cooling tower includes a tower body with multiple air intakes on its outer side. A lifting frame is fixedly connected to the bottom of the tower body, and an air outlet is provided at the top of the tower body. A circular hole is opened on the outer side of the tower body, and a water inlet pipe is fixedly connected inside the circular hole. A partition wall heat exchange component is provided inside the tower body. The partition wall heat exchange component includes a water supply pipe connected to the outer side of the water inlet pipe. A sealed valve is provided between the water inlet pipe and the water outlet pipe, and the sealed valve is located outside the tower body. A hole is opened on one side of the tower body, and the outer side of the water inlet pipe is fixedly connected to the inside of the hole. A spiral pipe is fixedly connected to the end of the water inlet pipe away from the sealed valve. A water outlet pipe is fixedly connected to the end of the spiral pipe away from the water inlet pipe. A dry channel is provided on the outer side of the spiral pipe, and the dry channel is fixedly connected to the outer side of the water outlet pipe and the water inlet pipe.

[0006] In a preferred embodiment, two perforations are formed on the outer side of the bottom end of the dry channel, and an air inlet pipe is fixedly connected inside each perforation. Two air outlet pipes are fixedly connected to the outer side of the top end of the dry channel, and a suction shell is fixedly connected to the top end of each air outlet pipe. A rotating motor is fixedly connected to the inner side of the bottom end of each suction shell, and the power output shaft of each rotating motor is connected to a rotating blade via a coupling. Two spherical shells are fixedly connected to the outer side of the dry channel, and the air outlet pipes are located inside the spherical shells.

[0007] In a preferred embodiment, two symmetrical annular components are fixedly connected to the outer side of the dry channel, and a fixed seat is fixedly connected to the top of each annular component. Two servo motors are arranged on the outer side of the dry channel, and the power output shafts of the servo motors are connected to rotating rods through couplings. The outer ends of the rotating rods are movably connected to the inner side of the fixed seats. The air outlet ducts are provided with two slots, and the rotating rods are movably connected to the inside of the slots. Opening and closing plates are fixedly connected to the outer side of each rotating rod. The opening and closing plates are located above the suction shell. The top of the spherical shell is provided with an opening, and the opening and closing plates are located inside the opening.

[0008] In a preferred embodiment, an outer shell is fixedly connected to the outside of the dry channel, and the servo motors are all located inside the outer shell. A rotary motor is installed inside the dry channel, and the power output shaft of the rotary motor is connected to a gear plate through a coupling. A ring gear is installed on the outside of the gear plate, and the ring gear and the gear plate mesh with each other through tooth grooves. One side of the ring gear is movably connected to the inner side of the dry channel near the water inlet pipe. A ring frame is fixedly connected to the side of the ring gear away from the water inlet pipe, and a fixed rod is fixedly connected to the side of the ring frame away from the rotary motor. An adjusting blade is fixedly connected to the outside of the fixed rod, and the adjusting blade is located on the outside of the spiral pipe.

[0009] In a preferred embodiment, a wind power adjustment component is provided inside the tower body, located below the partition wall heat exchange component. The wind power adjustment component includes two movable motors, both located outside the tower body. Two symmetrical movable rods are fixedly connected inside the tower body, and one end of the upper movable rod is connected to the power output shaft of the movable motor via a coupling. Wind power adjustment plates are fixedly connected to the outer sides of the movable rods.

[0010] In a preferred embodiment, external rods are fixedly connected to both sides of the plurality of wind power regulating plates, and adjusting rods are fixedly connected to the outer sides of the external rods. Two fixed frames are provided between the two movable motors. Both ends of the fixed frames are fixedly connected to the inner side of the tower body. Multiple support plates are fixedly connected to the opposite side of the fixed frames, and movable springs are fixedly connected to both ends of the bottom of the support plates. The ends of the movable springs away from the support plates are fixedly connected to the opposite side of the wind power regulating plates.

[0011] In a preferred embodiment, multiple motor frames are fixedly connected to the bottom of each of the multiple fixed frames. A universal motor is fixedly connected inside each motor frame. The power output shaft of each universal motor is connected to a rotating shaft via a coupling. Pull ropes are wound around the outside of each rotating shaft. A pull seat is fixedly connected to the opposite side of each pull rope. The pull seat has multiple circular holes. A guide rod is fixedly connected inside each circular hole. Both ends of the guide rod are fixedly connected to the opposite side of the fixed frame. A sealing plate is fixedly connected to the top of each pull seat. The top of the sealing plate contacts the bottom of the air inlet duct.

[0012] In a preferred embodiment, a fence is fixedly connected to the top of the tower body, a grid frame is fixedly connected inside the air outlet, and a drive motor is fixedly connected to the top of the grid frame.

[0013] In a preferred embodiment, the power output shaft of the drive motor is connected to a fan via a coupling, and the fan is located inside the tower body.

[0014] In a preferred embodiment, one end of the water inlet pipe is fixedly connected to a spray pipe located inside the tower body. The bottom end of the spray pipe is fixedly connected to multiple spray heads, and the bottom end of the tower body is fixedly connected to a water collection tank. The tower body is equipped with packing blocks inside.

[0015] As can be seen from the above, the integrated packing module water-saving and defogging cooling tower provided by the present invention has a structure that combines a dry channel and a spiral pipe, which can achieve completely isolated heat exchange between the spray water and the cooling air. The spray water flows inside the spiral pipe, and the cooling air flows inside the dry channel. The two only transfer heat through the pipe wall and do not come into direct contact, thereby fundamentally reducing the evaporation loss of the spray water and significantly improving the water-saving and defogging technical effect of the cooling tower. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0017] Figure 2 This is a schematic diagram of the internal structure of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0018] Figure 3 This is a schematic diagram of the top structure of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0019] Figure 4 This is a schematic diagram of the partition wall heat exchange component structure of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0020] Figure 5This is a schematic diagram of the internal structure of the dry channel of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0021] Figure 6 This is a schematic diagram of the adjustable blade structure of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0022] Figure 7 This is a schematic diagram of the internal structure of the spherical shell of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0023] Figure 8 This is a schematic diagram of the internal structure of the air outlet duct of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0024] Figure 9 This is a schematic diagram of the wind power regulation component of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0025] Figure 10 This is a schematic diagram of the wind power adjustment component of an integrated packing module water-saving and defogging cooling tower proposed in this invention.

[0026] In the diagram: 1. Tower body; 2. Air intake; 3. Elevating frame; 4. Air outlet; 5. Fence; 6. Water inlet pipe; 7. Grid frame; 8. Spray pipe; 9. Spray head; 10. Indirect heat exchange assembly; 1001. Water inlet pipe; 1002. Sealing valve; 1003. Dry channel; 1004. Water outlet pipe; 1005. Air inlet pipe; 1006. Outer shell; 1007. Spiral pipe; 1008. Annular component; 1009. Spherical shell; 1010. Servo motor; 1011. Fixing base; 1012. Rotating rod; 1013. Rotating motor; 1014. Gear plate; 1015. Ring gear; 1016. Annular frame; 1017. Fixing rod; 1018. 1019. Adjustable blades; 1020. Opening / closing plate; 1021. Air outlet duct; 1022. Rotating motor; 1023. Suction housing; 1024. Rotating blades; 11. Water collection tank; 12. Wind power adjustment assembly; 1201. Movable motor; 1202. Movable rod; 1203. Wind power adjustment plate; 1204. External rod; 1205. Adjusting rod; 1206. Fixing frame; 1207. Support plate; 1208. Movable spring; 1209. Motor frame; 1210. Universal motor; 1211. Rotating shaft; 1212. Pull rope; 1213. Pulling seat; 1214. Guide rod; 1215. Sealing plate; 13. Packing block; 14. Drive motor; 15. Fan. Detailed Implementation

[0027] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0028] The integrated packing module water-saving and defogging cooling tower disclosed in this invention is mainly used in scenarios where traditional cooling towers suffer from water waste due to large-scale evaporation and loss of cooling water and high moisture content in exhaust gas during direct contact heat exchange, which easily leads to the formation of white mist.

[0029] Reference Figures 1-10 An integrated packing module water-saving and defogging cooling tower includes a tower body 1, multiple air inlets 2 on the outer side of the tower body 1, a lifting frame 3 fixedly connected to the bottom of the tower body 1, an air outlet 4 at the top of the tower body 1, a circular hole on the outer side of the tower body 1, an inlet pipe 6 fixedly connected to the inside of the circular hole, and a partition wall heat exchange assembly 10 inside the tower body 1. The partition wall heat exchange assembly 10 includes a water supply pipe connected to the outer side of the inlet pipe 6, and a shut-off valve 1002 is installed between the inlet pipe 6 and the outlet pipe 1004. Door 1002 is located outside tower body 1. A hole is opened on one side of tower body 1. The outer side of water inlet pipe 1001 is fixedly connected to the inside of the hole. A spiral pipe 1007 is fixedly connected to the end of water inlet pipe 1001 away from the sealed valve 1002. A water outlet pipe 1004 is fixedly connected to the end of spiral pipe 1007 away from water inlet pipe 1001. A dry channel 1003 is provided on the outer side of spiral pipe 1007. The dry channel 1003 is fixedly connected to the outer side of water outlet pipe 1004 and water inlet pipe 1001.

[0030] Reference Figure 2 , Figure 4 , Figure 5 , Figure 6 , Figure 7 and Figure 8 In a preferred embodiment, two through holes are opened on the outer side of the bottom end of the dry channel 1003, and an air inlet pipe 1005 is fixedly connected inside the through holes. Two air outlet pipes 1020 are fixedly connected to the outer side of the top end of the dry channel 1003. A suction shell 1022 is fixedly connected to the top end of each air outlet pipe 1020. A rotating motor 1021 is fixedly connected to the inner side of the bottom end of each suction shell 1022. The power output shaft of the rotating motor 1021 is connected to a rotating blade 1023 through a coupling. Two spherical shells 1009 are fixedly connected to the outer side of the dry channel 1003. The air outlet pipes 1020 are located inside the spherical shells 1009.

[0031] In this invention, two symmetrical annular members 1008 are fixedly connected to the outer side of the dry channel 1003. The top of each annular member 1008 is fixedly connected to a fixed seat 1011. Two servo motors 1010 are arranged on the outer side of the dry channel 1003. The power output shafts of the servo motors 1010 are connected to rotating rods 1012 through couplings. The outer sides of both ends of the rotating rods 1012 are movably connected to the inner side of the fixed seat 1011. The air outlet duct 1020 has two slots. The rotating rods 1012 are movably connected to the inside of the slots. The outer side of each rotating rod 1012 is fixedly connected to an opening and closing piece 1019. The opening and closing piece 1019 is located above the suction shell 1022. The top of each spherical shell 1009 has an opening and closing port. The opening and closing piece 1019 is located inside the opening and closing port.

[0032] In this invention, an outer shell 1006 is fixedly connected to the outside of the dry channel 1003. The servo motors 1010 are all located inside the outer shell 1006. A rotary motor 1013 is installed inside the dry channel 1003. The power output shaft of the rotary motor 1013 is connected to a gear plate 1014 through a coupling. A ring gear 1015 is installed on the outside of the gear plate 1014. The ring gear 1015 and the gear plate 1014 mesh with each other through tooth grooves. One side of the ring gear 1015 is movably connected to the inner side of the end of the dry channel 1003 near the water inlet pipe 1001. A ring frame 1016 is fixedly connected to the side of the ring gear 1015 away from the water inlet pipe 1001. A fixing rod 1017 is fixedly connected to the side of the ring frame 1016 away from the rotary motor 1013. An adjusting blade 1018 is fixedly connected to the outside of the fixing rod 1017. The adjusting blade 1018 is located on the outside of the spiral pipe 1007.

[0033] Specifically, when switching to the water-saving and demisting mode, the sealed valve 1002 opens, the servo motor 1010 starts and drives the rotating rod 1012 to rotate, the rotating rod 1012 drives the opening and closing plate 1019 to rotate, so that the spherical shell 1009 changes from a sealed state to an open state. At the same time, the two general-purpose motors 1210 in the wind power adjustment component 12 are started. The two motors rotate forward and reverse respectively, driving the corresponding rotating shaft 1211 to rotate. One rotating shaft 1211 loosens the pull rope 1212, and the other rotating shaft 1211 tightens the pull rope 1212, driving the sealing plate 1215 to move along the guide rod 1214, so that the main air intake duct 1005 changes from a sealed state to an open state.

[0034] In water-saving and demisting mode, spray water flows into inlet pipe 1001 through inlet pipe 6 and then into spiral pipe 1007. Fan 15 continues to operate normally. At the same time, the rotating motor 1021 inside the suction shell 1022 starts, driving the rotating blades 1023 to rotate. The rotating blades 1023 send outside cold air into dry channel 1003 through air inlet pipe 1005 and drive the cold air to flow upward. Spray water flows into spiral pipe 1007 to form a wet channel. The cold air in dry channel 1003 and spray water in wet channel achieve indirect heat exchange through the pipe wall. Simultaneously, rotating motor 1013 starts, driving adjusting blades 1018 to rotate on the outside of spiral pipe 1007, so that the cold air can fully contact and exchange heat with the outer wall of spiral pipe 1007. After heat exchange is completed, water flows into water collection tank 11 through outlet pipe 1004, and airflow is discharged through air outlet pipe 1020.

[0035] It should be noted that the structure of the dry channel 1003 and the spiral pipe 1007 working together can achieve completely isolated heat exchange between the spray water and the cooling air. The spray water flows inside the spiral pipe 1007 and the cooling air flows inside the dry channel 1003. The two only transfer heat through the pipe wall and do not come into direct contact, thereby fundamentally reducing the evaporation loss of the spray water and significantly improving the water-saving and demisting effect of the cooling tower.

[0036] In practical applications, the independent air inlet duct 1005 and air outlet duct 1020 form a dedicated cooling airflow channel. Together with the suction shell 1022 and rotating blades 1023, they create a stable airflow, ensuring that the cooling air is stably and evenly enveloped on the outside of the spiral duct 1007. This improves heat exchange uniformity and efficiency, preventing a decrease in cooling effect due to uneven local heat exchange. The combination of the opening and closing plate 1019 and the spherical shell 1009 allows for flexible control of the opening and closing state of the partition heat exchange component 10, enabling rapid switching between direct heat exchange and partition heat exchange according to actual operational needs.

[0037] Reference Figure 2 , Figure 9 and Figure 10 In a preferred embodiment, a wind power adjustment component 12 is provided inside the tower body 1. The wind power adjustment component 12 is located below the partition wall heat exchange component 10. The wind power adjustment component 12 includes two movable motors 1201, both of which are located outside the tower body 1. Two symmetrical movable rods 1202 are fixedly connected inside the tower body 1. One end of the upper movable rod 1202 is connected to the power output shaft of the movable motor 1201 through a coupling. Wind power adjustment plates 1203 are fixedly connected to the outer sides of the movable rods 1202.

[0038] In this invention, external rods 1204 are fixedly connected to both sides of multiple wind power regulating plates 1203, and adjusting rods 1205 are fixedly connected to the outer sides of the external rods 1204. Two fixed frames 1206 are provided between the two movable motors 1201. Both ends of the fixed frames 1206 are fixedly connected to the inner side of the tower body 1. Multiple support plates 1207 are fixedly connected to the opposite side of the fixed frames 1206, and movable springs 1208 are fixedly connected to both ends of the bottom of the support plates 1207. The ends of the movable springs 1208 away from the support plates 1207 are fixedly connected to the opposite side of the wind power regulating plates 1203.

[0039] In this invention, multiple motor frames 1209 are fixedly connected to the bottom of multiple fixed frames 1206. A general-purpose motor 1210 is fixedly connected inside each motor frame 1209. The power output shaft of the general-purpose motor 1210 is connected to a rotating shaft 1211 via a coupling. A pull rope 1212 is wound around the outside of each rotating shaft 1211. A pull seat 1213 is fixedly connected to the opposite side of each pull rope 1212. Multiple circular holes are provided on the pull seat 1213. A guide rod 1214 is fixedly connected inside each circular hole. Both ends of the guide rod 1214 are fixedly connected to the opposite side of each fixed frame 1206. A sealing plate 1215 is fixedly connected to the top of each pull seat 1213. The top of the sealing plate 1215 is in contact with the bottom of the air inlet duct 1005.

[0040] Specifically, the movable motor 1201 in the wind power adjustment assembly 12 is activated, driving the movable rod 1202 to rotate inside the tower body 1 via a coupling. A wind power adjustment plate 1203 is fixedly connected to the outer side of the movable rod 1202. The rotation of the movable rod 1202 causes the wind power adjustment plate 1203 to swing back and forth. External rods 1204 are fixedly connected to both sides of the wind power adjustment plate 1203, and adjusting rods 1205 are fixedly connected to the outer sides of the external rods 1204. The adjusting rods 1205 move synchronously with the swing of the wind power adjustment plate 1203. The movable spring 1208... One end is fixedly connected to both ends of the bottom of the support plate 1207, and the other end is fixedly connected to the opposite side of the wind power regulating plate 1203. The elastic force of the movable spring 1208 makes the swing of the wind power regulating plate 1203 more stable. The back and forth swing of the wind power regulating plate 1203 guides the cold air sent into the tower body 1 by the fan 15 to the air inlet pipes 1005 on both sides, so that more cold air can enter the dry channel 1003 through the air inlet pipes 1005 and exchange heat with the outer wall of the spiral pipe 1007 to realize the regulation of the wind power circulation loop.

[0041] It should be noted that the system can actively distribute and precisely control the airflow within the tower body 1, allowing the cold air entering the tower to flow rationally according to the actual heat exchange requirements, avoiding energy loss caused by disordered airflow diffusion, and significantly improving the overall airflow utilization efficiency of the unit.

[0042] In practical applications, the on / off state of the air inlet duct 1005 can be flexibly controlled through the cooperation structure of the sealing plate 1215 and the air inlet duct 1005, and the airflow path can be quickly switched in different operating modes to ensure that the partition heat exchange component 10 and the conventional heat exchange area do not interfere with each other, and achieve stable switching of multiple modes.

[0043] Reference Figures 1-3 In a preferred embodiment, a fence 5 is fixedly connected to the top of the tower body 1, a grid frame 7 is fixedly connected inside the air outlet 4, and a drive motor 14 is fixedly connected to the top of the grid frame 7. The power output shaft of the drive motor 14 is connected to a fan 15 through a coupling, and the fan 15 is located inside the tower body 1. One end of the water inlet pipe 6 is fixedly connected to a spray pipe 8, which is located inside the tower body 1. Multiple spray heads 9 are fixedly connected to the bottom end of the spray pipe 8, and a water collection tank 11 is fixedly connected to the bottom end of the tower body 1. A packing block 13 is provided inside the tower body 1.

[0044] Working principle: During normal operation, the opening and closing plate 1019 in the partition heat exchange component 10 is located below the opening and closing port of the spherical shell 1009, keeping the spherical shell 1009 in a sealed state. At the same time, the sealing plate 1215 in the wind force regulating component 12 is in contact with the top of the air inlet pipe 1005, and the airtight valve 1002 is closed simultaneously, so that the partition heat exchange component 10 is in a sealed state. The drive motor 14 is started to drive the fan 15 to rotate. The fan 15 sends the outside cold air into the cooling tower body 1 through the air intake 2. The spray water flows into the spray pipe 8 through the water inlet pipe 6, and then sprays onto the packing material through the spray head 9. The cold air and the spray water directly contact each other for heat exchange inside the packing material. After the heat exchange is completed, the water falls into the water collection tank 11 under the action of gravity, and the airflow is discharged through the air outlet 4.

[0045] When switching to the water-saving and demisting mode, the sealed valve 1002 opens, the servo motor 1010 starts and drives the rotating rod 1012 to rotate, the rotating rod 1012 drives the opening and closing plate 1019 to rotate, so that the spherical shell 1009 changes from a sealed state to an open state. At the same time, the two universal motors 1210 in the wind power adjustment component 12 are started. The two motors rotate forward and reverse respectively, driving the corresponding rotating shaft 1211 to rotate. One rotating shaft 1211 loosens the pull rope 1212, and the other rotating shaft 1211 tightens the pull rope 1212, driving the sealing plate 1215 to move along the guide rod 1214, so that the main air intake duct 1005 changes from a sealed state to an open state.

[0046] In water-saving and demisting mode, spray water flows into inlet pipe 1001 through inlet pipe 6 and then into spiral pipe 1007. Fan 15 continues to operate normally. At the same time, the rotating motor 1021 inside the suction shell 1022 starts, driving the rotating blades 1023 to rotate. The rotating blades 1023 send outside cold air into dry channel 1003 through air inlet pipe 1005 and drive the cold air to flow upward. Spray water is introduced into spiral pipe 1007 to form a wet channel. The cold air in dry channel 1003 and the spray water in wet channel achieve indirect heat exchange through the pipe wall. Simultaneously, rotating motor 1013 starts, driving adjusting blades 1018 to rotate on the outside of spiral pipe 1007, so that the cold air can fully contact the outer wall of spiral pipe 1007 for heat exchange. After heat exchange is completed, water flows into water collection tank 11 through outlet pipe 1004, and airflow is discharged through air outlet pipe 1020.

[0047] Simultaneously, the movable motor 1201 in the wind power adjustment assembly 12 is activated, driving the movable rod 1202 to rotate inside the tower body 1 via a coupling. A wind power adjustment plate 1203 is fixedly connected to the outer side of the movable rod 1202. The rotation of the movable rod 1202 causes the wind power adjustment plate 1203 to swing back and forth. External rods 1204 are fixedly connected to both sides of the wind power adjustment plate 1203, and adjusting rods 1205 are fixedly connected to the outer sides of the external rods 1204. The adjusting rods 1205 move synchronously with the swing of the wind power adjustment plate 1203. One of the movable springs 1208... One end is fixedly connected to the bottom two ends of the support plate 1207, and the other end is fixedly connected to the opposite side of the wind power regulating plate 1203. The elastic force of the movable spring 1208 makes the swing of the wind power regulating plate 1203 more stable. The back and forth swing of the wind power regulating plate 1203 guides the cold air sent into the tower body 1 by the fan 15 to the air inlet pipes 1005 on both sides, so that more cold air can enter the dry channel 1003 through the air inlet pipes 1005 and exchange heat with the outer wall of the spiral pipe 1007 to realize the regulation of the wind power circulation loop.

[0048] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. An integrated packing module water-saving and defogging cooling tower, comprising a tower body (1), characterized in that, The tower body (1) has multiple air intakes (2) on its outer side. A lifting frame (3) is fixedly connected to the bottom of the tower body (1). An air outlet (4) is provided at the top of the tower body (1). A circular hole is opened on the outer side of the tower body (1). A water inlet pipe (6) is fixedly connected inside the circular hole. A partition heat exchange assembly (10) is provided inside the tower body (1). The partition heat exchange assembly (10) includes a water supply pipe. The water supply pipe is connected to the outside of the water inlet pipe (6). A sealed valve (1002) is provided between the water inlet pipe (6) and the water outlet pipe (1004). The sealed valve (1002) is located on the tower body. Outside the body (1), a hole is provided on one side of the tower body (1). The outer side of the water inlet pipe (1001) is fixedly connected to the inside of the hole. The end of the water inlet pipe (1001) away from the sealed valve (1002) is fixedly connected to a spiral pipe (1007). The end of the spiral pipe (1007) away from the water inlet pipe (1001) is fixedly connected to an outlet pipe (1004). A dry channel (1003) is provided on the outside of the spiral pipe (1007). The dry channel (1003) is fixedly connected to the outside of the outlet pipe (1004) and the water inlet pipe (1001).

2. The integrated packing module water-saving and defogging cooling tower according to claim 1, characterized in that, Two through holes are opened on the outer side of the bottom end of the dry channel (1003), and an air inlet pipe (1005) is fixedly connected inside the through holes. Two air outlet pipes (1020) are fixedly connected on the outer side of the top end of the dry channel (1003). A suction shell (1022) is fixedly connected to the top end of each air outlet pipe (1020). A rotating motor (1021) is fixedly connected inside the bottom end of each suction shell (1022), and the power output shaft of the rotating motor (1021) is connected to a rotating blade (1023) through a coupling. Two spherical shells (1009) are fixedly connected on the outer side of the dry channel (1003), and the air outlet pipes (1020) are located inside the spherical shells (1009).

3. The integrated packing module water-saving and defogging cooling tower according to claim 2, characterized in that, Two symmetrical annular parts (1008) are fixedly connected to the outer side of the dry channel (1003). The top of each annular part (1008) is fixedly connected to a fixed seat (1011). Two servo motors (1010) are provided on the outer side of the dry channel (1003). The power output shafts of the servo motors (1010) are connected to rotating rods (1012) through couplings. The outer sides of both ends of the rotating rods (1012) are movably connected to the inner side of the fixed seat (1011). The air outlet pipe (1020) has two slots. The rotating rods (1012) are movably connected to the inside of the slots. The outer side of each rotating rod (1012) is fixedly connected to an opening and closing piece (1019). The opening and closing piece (1019) is located above the suction shell (1022). The top of each spherical shell (1009) is provided with an opening and closing port. The opening and closing piece (1019) is located inside the opening and closing port.

4. The integrated packing module water-saving and defogging cooling tower according to claim 3, characterized in that, An outer shell (1006) is fixedly connected to the outside of the main channel (1003). Servo motors (1010) are all located inside the outer shell (1006). A rotary motor (1013) is installed inside the main channel (1003). The power output shafts of the rotary motors (1013) are all connected to gear plates (1014) via couplings. Ring gears (1015) are installed on the outside of the gear plates (1014). The ring gears (1015) mesh with the gear plates (1014) through tooth grooves. One side of (1015) is movably connected to the inner side of the end of the dry channel (1003) near the water inlet pipe (1001). The ring gear (1015) is fixedly connected to the side away from the water inlet pipe (1001) with a ring frame (1016). The ring frame (1016) is fixedly connected to the side away from the rotary motor (1013) with a fixed rod (1017). An adjusting blade (1018) is fixedly connected to the outside of the fixed rod (1017). The adjusting blade (1018) is located outside the spiral pipe (1007).

5. The integrated packing module water-saving and defogging cooling tower according to claim 1, characterized in that, The tower body (1) is equipped with a wind power adjustment component (12) located below the partition wall heat exchange component (10). The wind power adjustment component (12) includes two movable motors (1201). The movable motors (1201) are located outside the tower body (1). The tower body (1) is fixedly connected with two symmetrical movable rods (1202). One end of the upper movable rod (1202) is connected to the power output shaft of the movable motor (1201) through a coupling. The outer side of the movable rod (1202) is fixedly connected with a wind power adjustment plate (1203).

6. The integrated packing module water-saving and defogging cooling tower according to claim 5, characterized in that, Both sides of the multiple wind power regulating plates (1203) are fixedly connected to external rods (1204), and the outer sides of the external rods (1204) are fixedly connected to adjusting rods (1205). Two fixed frames (1206) are provided between the two movable motors (1201). Both ends of the fixed frames (1206) are fixedly connected to the inner side of the tower body (1). Multiple support plates (1207) are fixedly connected to the opposite side of the fixed frames (1206), and movable springs (1208) are fixedly connected to both ends of the bottom of the support plates (1207). The end of the movable spring (1208) away from the support plate (1207) is fixedly connected to the opposite side of the wind power regulating plate (1203).

7. The integrated packing module water-saving and defogging cooling tower according to claim 6, characterized in that, Multiple motor frames (1209) are fixedly connected to the bottom of the multiple fixed frames (1206). A general-purpose motor (1210) is fixedly connected inside the motor frame (1209). The power output shaft of the general-purpose motor (1210) is connected to a rotating shaft (1211) through a coupling. A pull rope (1212) is wound around the outside of the rotating shaft (1211). A pull seat (1213) is fixedly connected to the opposite side of the pull rope (1212). Multiple circular holes are opened on the pull seat (1213). A guide rod (1214) is fixedly connected inside the circular holes. Both ends of the guide rod (1214) are fixedly connected to the opposite side of the fixed frame (1206). A sealing plate (1215) is fixedly connected to the top of the pull seat (1213). The top of the sealing plate (1215) is in contact with the bottom of the air inlet pipe (1005).

8. The integrated packing module water-saving and defogging cooling tower according to claim 3, characterized in that, The top of the tower body (1) is fixedly connected to a fence (5), the inside of the air outlet (4) is fixedly connected to a grid frame (7), and the top of the grid frame (7) is fixedly connected to a drive motor (14).

9. The integrated packing module water-saving and defogging cooling tower according to claim 8, characterized in that, The power output shaft of the drive motor (14) is connected to the fan (15) via a coupling, and the fan (15) is located inside the tower body (1).

10. The integrated packing module water-saving and defogging cooling tower according to claim 9, characterized in that, One end of the water inlet pipe (6) is fixedly connected to a spray pipe (8), which is located inside the tower body (1). Multiple spray heads (9) are fixedly connected to the bottom end of the spray pipe (8), and a water collection tank (11) is fixedly connected to the bottom end of the tower body (1). A packing block (13) is installed inside the tower body (1).

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