High-power and efficient circulating liquid cooler

Abstract

The invention discloses a high-power and efficient circulating liquid cooler, and belongs to the technical field of circulating liquid coolers, the high-power and efficient circulating liquid cooler comprises a shell, the interior of the shell is of a hollow structure, and a fluid optimization assembly is arranged in the shell and used for improving the heat dissipation effect and reducing local overheating and dust accumulation. The fluid dynamics can be optimized, the stability of the system is improved, and the bidirectional turbulent flow assembly is arranged in the liquid storage cavity in the top of the shell and used for reducing a thermal boundary layer, enhancing fluid mixing and optimizing the dynamic response of the cooling system. By adopting the bidirectional turbulent flow assembly and the fluid optimization assembly, the radiator moves up and down and left and right and disturbs the cooling liquid bidirectionally, so that the heat exchange efficiency, the cooling liquid flowability, the system response speed and the overall stability of the cooling system can be remarkably improved, a heat boundary layer is reduced, the heat exchange efficiency is improved, energy consumption can be reduced, and the service life of the cooling system is prolonged. The equipment life is prolonged and the maintenance frequency is reduced.

Description

Technical Field

[0001] This invention belongs to the technical field of circulating liquid coolers, specifically relating to a high-power and high-efficiency circulating liquid cooler. Background Technology

[0002] With the advancement of industrialization, the power of various equipment is increasing, leading to greater demands for heat dissipation. Traditional air cooling methods suffer from low heat dissipation efficiency and large footprint. Circulating liquid coolers, through the flow of a liquid cooling medium, significantly improve heat dissipation efficiency and can better adapt to different operating conditions, thus achieving energy conservation and consumption reduction. Circulating liquid coolers provide a more efficient and stable temperature control system, effectively protecting equipment from high temperatures, extending its service life, and reducing maintenance costs. Liquid cooling technology can provide more efficient thermal management within limited space, meeting the needs of high-density integrated systems. Its application is becoming increasingly important, especially in high-performance computers, data centers, and industrial automation.

[0003] The heat exchange efficiency between the radiator surface and the coolant in existing circulating liquid coolers may be uneven, especially when the liquid flow is poor or there are "dead zones". Heat transfer may be inhibited, and the flow of coolant may form a stable laminar flow, which cannot effectively break the boundary layer, resulting in poor cooling effect. Insufficiently flowing coolant cannot efficiently remove heat, which may cause the heat source temperature to not drop rapidly. With long-term use, due to uneven coolant flow, some areas may have slow flow, leading to the accumulation of deposits and increasing the difficulty of maintenance and cleaning. Summary of the Invention

[0004] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide a high-power and high-efficiency circulating liquid cooler.

[0005] The technical solution adopted to solve the above technical problems is: A high-power and high-efficiency circulating liquid cooler includes a shell with a hollow internal structure and a liquid storage chamber at the top. A liquid inlet is formed through the center of the top surface of the shell, and a cover plate is hinged to the center of the top surface. A control panel is mounted on the front of the shell, and heat dissipation grooves are formed through the sides of the shell at the bottom of the control panel. A fluid optimization component is installed inside the shell to improve heat dissipation, reduce local overheating and dust accumulation, optimize fluid dynamics, and improve system stability. A bidirectional turbulence component is installed in the liquid storage chamber at the top of the shell to reduce the thermal boundary layer, enhance fluid mixing, and optimize the dynamic response of the cooling system.

[0006] The above technical solution can stimulate the flow of liquid in the radiator, so that the liquid can cover the radiator surface more evenly, which helps to achieve more efficient heat exchange between the coolant and the hot surface. If the coolant remains stagnant in a certain position for a long time, it may cause liquid deposition or bubble formation, which will affect the cooling performance. The radiator can reduce this deposition phenomenon by circulating up, down and left and right, and ensure the fluidity of the liquid and the efficiency of heat exchange.

[0007] Furthermore, the fluid optimization component includes a fixed frame fixedly connected to two housings, and a fixed plate fixedly connected between the two fixed frames. The fixed frame is L-shaped, and the fixed plate is slidably connected to a sliding frame with an I-shaped structure. The bottom of the sliding frame has a through groove, and the top of the sliding frame is slidably connected to a slide bar. The sliding frame limits the slide bar, and a heat sink is welded to the top of the slide bar.

[0008] With the above technical solution, the up, down, left and right movement of the radiator means that the heat exchange surface is always at different angles and positions. This dynamic change helps to increase the contact area between the radiator and the cooling medium, thereby improving the heat exchange capacity.

[0009] Furthermore, the inner wall of the liquid storage chamber at the top of the outer shell is provided with a drain hole and a return hole. Two metal pipes are installed on one side of the radiator, and the heat exchange fins are connected to the radiator. At the same time, the other end of the heat exchange fins is fixed to the inner wall of the outer shell. The metal pipes are made of flexible and deformable metal. A water pump is installed on one side wall of the outer shell, and return pipes are installed at the top and bottom of the water pump. The return pipe at the bottom of the water pump is connected to the heat exchange fins at the bottom of the hose. A drain pipe is provided on one side of the return pipe, and the drain pipe is fixed to the outer wall of the outer shell.

[0010] Furthermore, the top of the drain pipe is located at the drain hole, and the top of the return pipe located at the top of the water pump is located at the return hole. The radiator is connected to the liquid storage chamber at the top of the outer casing through the metal pipe, drain pipe and return pipe, thereby forming a liquid circulation loop. A flexible hose is installed on the side of the outer casing away from the water pump, and the flexible hose is connected to the liquid storage chamber at the top of the outer casing. At the same time, a heat exchange plate is installed at the other end of the flexible hose.

[0011] With the above technical solution, as the surface of the radiator moves, it is difficult for dust and impurities to accumulate in a fixed position on the radiator. Multi-directional movement can effectively remove dust and dirt from the surface, keep the radiator clean, and prevent dirt from affecting the heat dissipation effect.

[0012] Furthermore, a first connecting plate is rotatably connected to one side of the slide bar, and a second connecting plate is rotatably connected to the other end of the first connecting plate. The middle part of the second connecting plate is rotatably connected to a fixed plate. A third connecting plate is rotatably connected to the end of the second connecting plate away from the first connecting plate, and a protruding plate is rotatably connected to the other end of the third connecting plate. A rotating plate is fixedly connected to the other end of the protruding plate. The rotating plate is located in the middle of the slide groove, and the protruding plate and the rotating plate are fixedly connected at an eccentric point. The rotating plate is slidably connected to the sliding frame. A first motor is installed on the side of the fixed plate away from the protruding plate, and the output end of the first motor is rotatably connected through the fixed plate. The through end of the first motor is fixedly connected to the eccentric point of the rotating plate.

[0013] By optimizing the fluid flow and the contact between the fluid and the radiator surface, the cooling performance can be improved without adding more coolant, thereby saving costs.

[0014] Furthermore, the bidirectional turbulence assembly includes a support frame located at the center of the liquid storage cavity at the top of the outer shell, and the support frame is fixedly connected to the outer shell. Meanwhile, a main gear is rotatably connected to the middle of one side of the top surface of the support frame. Gear sets are driven to both sides of the main gear, and two gears are provided in the gear sets that are driven to each other. At the same time, the main gear meshes with one of the gears in the gear set. The gear set is rotatably connected to the support frame.

[0015] The above technical solution helps to mix the coolant internally by agitating its flow, avoiding uneven temperature distribution. Through stirring or agitation, the heat of the coolant is distributed more evenly, which helps to improve the stability of heat exchange.

[0016] Furthermore, the top of the gear set is provided with three sets of first-order connecting rods, and each first-order connecting rod set contains two connecting rods that are rotatably connected to each other at their centers. Simultaneously, the connecting rods within the three sets of first-order connecting rods are rotatably connected to each other end-to-end. The first-order connecting rod sets are arranged in an X-shape. The two connecting rods in the first-order connecting rod set closest to the gear set are rotatably connected to the eccentric points of the two gears within the gear set. A second-order connecting rod set is provided on the side furthest from the gear set, and contains two connecting rods that are rotatably connected to each other. The second-order connecting rod set is arranged in a V-shape, and one end of each of the two connecting rods in the second-order connecting rod set is rotatably connected to the two connecting rods in the first-order connecting rod set on the side furthest from the gear set.

[0017] Through the above technical solutions, turbulent flow helps reduce the accumulation of solid particles, deposits or dirt in the coolant. By increasing the kinetic energy of the flow, turbulence can prevent these deposits from accumulating inside the cooling system, keeping the cooling system clean and extending its service life.

[0018] Furthermore, a spoiler is rotatably connected to the two connecting rods in the second connecting rod group, and the spoiler is slidably connected to the outer shell. The outer shell limits the position of the spoiler, and the spoiler has several through holes. A second motor is installed inside the outer shell, and the output end of the second motor is rotatably connected to the outer shell. At the same time, the end of the second motor is rotatably connected to the support frame and then connected and fixed to the main gear.

[0019] The above technical solution disturbs the flow of coolant, enabling it to respond more sensitively to changes in external heat sources. When the heat source suddenly increases, the disturbed flow helps the coolant quickly remove excess heat, improving the cooling system's adaptability to changing loads.

[0020] The beneficial effects of the present invention are as follows: (1) The present invention uses a fluid optimization component. The No. 1 motor drives the rotating plate to rotate, so that it rotates with the eccentric point as the origin, so that the sliding frame moves up and down in the fixed plate. When the rotating plate rotates, the convex plate rotates synchronously, and the No. 3 connecting plate moves synchronously, thereby driving the slide groove to swing in a cycle with the connection point with the fixed plate as the origin, thereby driving the No. 1 connecting plate to move synchronously. The two ends of the No. 1 connecting plate rotate relative to the No. 2 connecting plate and the slide bar respectively, so that the slide bar and the radiator on its top move back and forth horizontally at the bottom of the fixed plate, causing the radiator to move up and down and left and right in a cycle, increasing the contact time and contact area between the coolant and the radiator surface, promoting the transfer of heat, and the dynamic movement avoids the heat from being concentrated in a certain part, thereby improving the overall heat exchange efficiency, helping the coolant to contact the radiator more evenly, avoiding local overheating, and ensuring that the cooling effect is evenly distributed throughout the system. (2) By employing a bidirectional turbulence assembly, the No. 2 motor drives the main gear at the top of the support frame to rotate, thereby enabling the gear sets on both sides to transmit power. When the two gears in the gear set mesh and rotate, the two connecting rods in the No. 1 connecting rod group connected to them move synchronously. At the same time, the connecting rods and gears rotate relative to each other. Furthermore, the two connecting rods rotate in a cyclic opening and closing motion with the middle connection point as the origin, thereby driving the two connecting rods in the No. 2 connecting rod group to rotate synchronously. This causes the turbulence plate to move back and forth in a cyclic manner in the liquid storage cavity at the top of the outer shell. The bidirectional turbulence is similar to introducing a periodic strong flow in the fluid, which can significantly increase the contact frequency between the coolant and the heat exchange surface, thereby increasing the heat transfer rate. The periodic compression and expansion generated can effectively promote the flow of coolant, causing the coolant temperature to change continuously and helping to quickly remove excess heat. Attached Figure Description

[0021] Figure 1 This is a first-view structural schematic diagram of the present invention; Figure 2 This is a schematic diagram of the second perspective structure of the present invention; Figure 3 This is a schematic diagram of the third-view structure of the present invention; Figure 4 This is a first-view structural diagram of the interior of the outer casing of the present invention; Figure 5 This is a schematic diagram of the fluid optimization component structure of the present invention; Figure 6 This is a schematic diagram of the internal structure of the outer shell of the present invention from a second perspective; Figure 7 This is a first-view structural schematic diagram of the bidirectional turbulence component of the present invention; Figure 8 This is a schematic diagram of the bidirectional turbulence component of the present invention from a second perspective. Figure 9 This is a schematic diagram of the internal structure of the outer shell of the present invention from a third-view perspective; Figure 10 yes Figure 7 A magnified structural diagram at point A; Figure 11 yes Figure 8 A magnified structural diagram at point B.

[0022] Reference numerals: 11. Outer shell; 12. Control panel; 13. Hoses; 14. Heat exchange plates; 15. Drain pipe; 16. Return pipe; 17. Water pump; 18. Cover plate; 19. Heat dissipation trough; 110. Liquid inlet; 111. Drain hole; 112. Return hole; 113. Radiator; 114. Metal pipe; 2. Fluid optimization component; 21. Fixing frame; 22. Fixing plate; 23. Sliding frame; 24. Slide groove; 25. Sliding bar; 26. Connecting plate No. 1; 27. Connecting plate No. 2; 28. Rotating plate; 29. ​​Protruding plate; 210. Connecting plate No. 3; 211. Motor No. 1; 3. Bidirectional turbulence component; 31. Main gear; 32. Support frame; 33. Gear set; 34. Connecting rod group No. 1; 35. Connecting rod group No. 2; 36. Turbine plate; 37. Motor No. 2. Detailed Implementation

[0023] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.

[0024] like Figures 1-7This embodiment of a high-power and high-efficiency circulating liquid cooler includes a housing 11, which has a hollow internal structure and a liquid storage chamber at the top. A liquid inlet 110 is provided through the center of the top surface of the housing 11. A cover plate 18 is hinged to the center of the top surface of the housing 11. A control panel 12 is mounted on the front of the housing 11. A fan of the prior art is installed on the control panel 12 to accelerate airflow and enhance the heat exchange effect of the radiator 113. Heat dissipation grooves 19 are provided through the sides of the housing 11 at the bottom of the control panel 12. A drain hole 111 and a return hole 112 are provided through the inner wall of the liquid storage chamber at the top of the housing 11. Two metal pipes 114 are installed on one side of the radiator 113, and heat exchange plates 14 are connected to the radiator 113. The other end of the heat exchange plates 14 is fixed to the inner wall of the housing 11. The metal pipes 114 are made of flexible and deformable metal. A water pump 17 is installed on one side wall of the housing 11, and return pipes 16 are installed at the top and bottom of the water pump 17.

[0025] like Figures 2-7 As the surface of the radiator 113 moves, dust and impurities are unlikely to accumulate in a fixed position. Multi-directional movement can effectively remove dust and dirt from the surface, keeping the radiator 113 clean and preventing dirt from affecting the heat dissipation effect. At the same time, the return pipe 16 at the bottom of the water pump 17 is connected to the heat exchange plate 14 at the bottom of the hose 13. A drain pipe 15 is provided on one side of the return pipe 16, with the top of the drain pipe 15 located at the drain hole 111. The top of the return pipe 16 at the top of the water pump 17 is located at the return hole 112. The radiator 113 is connected to the liquid storage chamber at the top of the outer casing 11 through the metal pipe 114, the drain pipe 15, and the return pipe 16, thus forming a liquid circulation loop. The hose 13 is installed on the side of the outer casing 11 away from the water pump 17, which optimizes the movement of the fluid and the contact of the radiator 113 surface. This can improve the cooling performance without adding more coolant, thereby saving costs.

[0026] like Figures 2-8As shown, the hose 13 is connected to the liquid storage chamber at the top of the outer casing 11, and a heat exchange plate 14 is installed at the other end of the hose 13. The drain pipe 15 is fixedly installed to the outer wall of the outer casing 11. A fluid optimization component 2 is provided inside the outer casing 11 to improve heat dissipation, reduce local overheating and dust accumulation, optimize fluid dynamics, and improve system stability. The fluid optimization component 2 includes a fixing bracket 21 fixedly connected to the two outer casings 11, and a fixing plate 22 is fixedly connected between the two fixing brackets 21. The fixing bracket 21 is L-shaped, and the fixing plate 22 is slidably connected to a sliding plate with an I-shaped structure. The sliding frame 23 has a sliding groove 24 through its bottom and a sliding strip 25 through its top. A connecting plate 26 is rotatably connected to one side of the sliding strip 25. This can stimulate the flow of liquid in the radiator 113, so that the liquid covers the surface of the radiator 113 more evenly. This helps to achieve more efficient heat exchange between the coolant and the hot surface. If the coolant remains stagnant in a certain position for a long time, it may cause liquid deposition or bubble formation, which will affect the cooling performance. The radiator 113 can reduce this deposition phenomenon by moving up, down and left and right in a circular motion, ensuring the fluidity of the liquid and the efficiency of heat exchange.

[0027] like Figures 2-9 As shown, the other end of the first connecting plate 26 is rotatably connected to the second connecting plate 27. When the second connecting plate 27 swings with the connection point of the fixed plate 22 as the origin, the distance between the convex plate 29 and the third connecting plate 210 and the center line of the fixed plate 22 to the outer shell 11 is the same. When the second connecting plate 27 rotates to its maximum, it fits against the outer shell 11. At the same time, the middle part of the second connecting plate 27 is rotatably connected to the fixed plate 22. The end of the second connecting plate 27 away from the first connecting plate 26 is rotatably connected to the third connecting plate 210, and the other end of the third connecting plate 210 is rotatably connected to the convex plate 29. At the same time, the other end of the convex plate 29 is fixedly connected to the rotating plate 28. The up, down, left and right movement of the heat sink 113 means that The heat exchange surface is constantly at different angles and positions. This dynamic change helps to increase the contact area between the radiator 113 and the cooling medium, thereby improving the heat exchange capacity. The rotating plate 28 is located in the middle of the slide groove 24, and the convex plate 29 is fixedly connected to the eccentric part of the rotating plate 28. At the same time, the rotating plate 28 is slidably connected to the sliding frame 23. A first motor 211 is installed on the side of the fixed plate 22 away from the convex plate 29, and the output end of the first motor 211 is rotatably connected to the fixed plate 22. At the same time, the through end of the first motor 211 is fixedly connected to the eccentric part of the rotating plate 28. The sliding frame 23 limits the sliding bar 25, and the radiator 113 is welded to the top of the sliding bar 25.

[0028] like Figures 2-10As shown, a bidirectional turbulence assembly 3 is provided in the liquid storage cavity at the top of the outer casing 11 to reduce the thermal boundary layer, enhance fluid mixing, and optimize the dynamic response of the cooling system. The bidirectional turbulence assembly 3 includes a support frame 32 located at the center of the liquid storage cavity at the top of the outer casing 11, and the support frame 32 is fixedly connected to the outer casing 11. At the same time, a main gear 31 is rotatably connected to the middle of one side of the top surface of the support frame 32, and gear sets 33 are driven to both sides of the main gear 31. The turbulent flow helps to reduce the accumulation of solid particles, deposits or dirt in the coolant. By increasing the kinetic energy of the flow, the turbulence can prevent these deposits from accumulating inside the cooling system, keeping the cooling system clean and extending its service life. Three sets of first linkage groups 34 are provided at the top of the gear set 33, and two connecting rods that are rotatably connected to each other at the center are provided in the first linkage group 34.

[0029] like Figures 2-11 As shown, the connecting rods in the three sets of first connecting rod groups 34 are rotatably connected end to end. The first connecting rod group 34 is arranged in an X-shape. The two connecting rods in the first connecting rod group 34 closest to the gear set 33 are rotatably connected to the eccentric parts of the two gears in the gear set 33. The second connecting rod group 35 is arranged on the side away from the gear set 33. It disturbs the flow of coolant so that it can respond more sensitively to changes in external heat sources. When the heat source suddenly increases, the disturbed flow helps the coolant quickly remove excess heat, improving the cooling system's adaptability to changing loads. The two connecting rods in the second connecting rod group 35 are rotatably connected to each other with a baffle 36. At the same time, the baffle 36 is slidably connected to the outer shell 11. The disturbed flow of coolant helps to mix the coolant inside, avoiding the problem of uneven temperature distribution. Through stirring or disturbance, the heat of the coolant is further... The even distribution helps improve the stability of heat exchange. The outer shell 11 limits the position of the baffle 36, and the baffle 36 has several through holes. The second motor 37 is installed inside the outer shell 11, and the output end of the second motor 37 is rotatably connected to the outer shell 11. At the same time, the through end of the second motor 37 is rotatably connected to the support frame 31 and then connected and fixed to the main gear 32. The second connecting rod group 35 is provided with two connecting rods that are rotatably connected to each other. The second connecting rod group 35 is arranged in a V-shaped structure. One end of the two connecting rods in the second connecting rod group 35 is rotatably connected to two connecting rods in the first connecting rod group 34 on the side away from the gear group 33. The gear group 33 is provided with two gears that are mutually connected. At the same time, the main gear 31 meshes with one of the gears in the gear group 33. The gear group 33 is rotatably connected to the support frame 32.

[0030] The working principle of this embodiment is as follows: Before use, after opening the cover plate 18, coolant is poured in from the inlet 110, so that the coolant submerges the liquid storage chamber at the top of the outer casing 11. At the same time, the coolant gradually enters the hose 13 and the radiator 113, so that the coolant in the liquid storage chamber at the top of the outer casing 11 is submerged by three-quarters. Then, the heat exchange plate 14 at one end of the hose 13 is connected to the equipment. The heat generated by the operation of the equipment is transferred to the coolant in the hose 13 through the heat exchange plate 14, and then the heat is gradually transferred to the coolant in the liquid storage chamber at the top of the outer casing 11.

[0031] Then, the operator can operate the control panel 12 to make the electronic components inside and outside the housing 11 run. The water pump 17 runs and transports the coolant in the radiator 113 through the return pipe 16 and the return hole 112 to the liquid storage chamber at the top of the housing 11. The coolant in the liquid storage chamber at the top of the housing 11 then flows into the radiator 113 through the drain hole 111 and under the action of gravity through the drain pipe 15, forming a cycle. After the coolant with heat enters the radiator 113, the existing fan releases the heat of the heated coolant into the air, and the temperature of the coolant decreases.

[0032] When heat is transferred to the liquid storage cavity at the top of the outer casing 11, the second motor 37 drives the main gear 31 at the top of the support frame 32 to rotate, thereby causing the gear sets 33 on both sides to transmit power. When the two gears in the gear set 33 mesh and rotate, the two connecting rods in the first connecting rod set 34 connected to it move synchronously. At the same time, the connecting rods and gears rotate relative to each other. Furthermore, the two connecting rods rotate in a cyclic opening and closing motion with the middle connection point as the origin, thereby driving the two connecting rods in the second connecting rod set 35 to rotate in a cyclic opening and closing motion. This causes the spoiler 36 to move back and forth in a cyclic motion within the liquid storage cavity at the top of the outer casing 11. By bidirectionally pushing the coolant flow, it helps to break the problem of uneven temperature distribution in the coolant, mixing the hotter part of the coolant with the colder part of the liquid, which can distribute heat more evenly and improve the cooling effect.

[0033] When the radiator 113 dissipates coolant, the first motor 211 drives the rotating plate 28 to rotate, causing it to rotate around the eccentric point as the origin. This causes the rotating plate 28 to slide within the sliding groove 24 at the bottom of the sliding frame 23, thereby causing the sliding frame 23 to reciprocate up and down within the fixed plate 22. As the rotating plate 28 rotates, the convex plate 29 rotates synchronously, and the third connecting plate 210 moves synchronously. The two ends of the third connecting plate 210 rotate relative to the convex plate 29 and the sliding groove 24 respectively, thereby causing the sliding groove 24 to rotate around the connection point with the fixed plate 22 as the origin. The ring swings, which in turn drives the first connecting plate 26 to move synchronously. The two ends of the first connecting plate 26 rotate relative to the second connecting plate 27 and the slide bar 25, respectively. This causes the slide bar 25 and the heat sink 113 on its top to move back and forth laterally at the bottom of the fixed plate 22, causing the heat sink 113 to move up, down, left and right in a cyclical manner. The metal tube 114, due to its flexible material, bends and stretches to varying degrees to avoid heat accumulation or uneven distribution in certain areas of the heat sink 113 due to prolonged stillness. This effectively breaks the heat concentration phenomenon and allows the heat to be distributed more evenly across the entire heat dissipation surface.

[0034] The above description is merely a preferred embodiment of the present invention and is not intended to limit the scope of protection of the present invention.

Claims

1. A high-power and high-efficiency circulating liquid cooler, comprising a shell (11), wherein the shell (11) is hollow, and a liquid storage chamber is provided at the top of the shell (11), and a liquid inlet (110) is provided through the center of the top surface of the shell (11), a cover plate (18) is hinged at the center of the top surface of the shell (11), and a control panel (12) is installed on the front of the shell (11), and heat dissipation grooves (19) are provided through the sides of the shell (11) at the bottom of the control panel (12), characterized in that: The shell (11) is equipped with a fluid optimization component (2) to improve heat dissipation, reduce local overheating and dust accumulation, optimize fluid dynamics, and improve system stability. The liquid storage cavity at the top of the shell (11) is equipped with a bidirectional turbulence component (3) to reduce the thermal boundary layer, enhance fluid mixing, and optimize the dynamic response of the cooling system.

2. The high-power and high-efficiency circulating liquid cooler according to claim 1, characterized in that, The fluid optimization component (2) includes a fixed frame (21) fixedly connected to two housings (11), and a fixed plate (22) fixedly connected between the two fixed frames (21). The fixed frame (21) is L-shaped. The fixed plate (22) is slidably connected to a sliding frame (23) with an I-shaped structure. The bottom of the sliding frame (23) is provided with a sliding groove (24). The top of the sliding frame (23) is slidably connected to a sliding strip (25). The sliding frame (23) limits the sliding strip (25). A heat sink (113) is welded to the top of the sliding strip (25).

3. A high-power and high-efficiency circulating liquid cooler according to claim 2, characterized in that, The inner wall of the liquid storage chamber at the top of the outer shell (11) is provided with a drain hole (111) and a return hole (112). Two metal pipes (114) are installed on one side of the radiator (113), and the heat exchange plate (14) is connected to the radiator (113). At the same time, the other end of the heat exchange plate (14) is fixed to the inner wall of the outer shell (11). The metal pipe (114) is made of flexible and deformable metal. A water pump (17) is installed on one side wall of the outer shell (11), and a return pipe (16) is installed on the top and bottom of the water pump (17). At the same time, the return pipe (16) at the bottom of the water pump (17) is connected to the heat exchange plate (14) at the bottom of the hose (13). A drain pipe (15) is provided on one side of the return pipe (16), and the drain pipe (15) is fixed to the outer wall of the outer shell (11).

4. A high-power and high-efficiency circulating liquid cooler according to claim 3, characterized in that, The top end of the drain pipe (15) is located at the drain hole (111), and the top end of the return pipe (16) located at the top of the water pump (17) is located at the return hole (112). The radiator (113) is connected to the liquid storage chamber at the top of the outer shell (11) through the metal pipe (114), the drain pipe (15) and the return pipe (16), thereby forming a liquid circulation loop. A flexible hose (13) is installed on the side of the outer shell (11) away from the water pump (17), and the flexible hose (13) is connected to the liquid storage chamber at the top of the outer shell (11). At the same time, a heat exchange plate (14) is installed at the other end of the flexible hose (13).

5. A high-power and high-efficiency circulating liquid cooler according to claim 2, characterized in that, The slide bar (25) is rotatably connected to a first connecting plate (26) on one side, and a second connecting plate (27) is rotatably connected to the other end of the first connecting plate (26). The middle of the second connecting plate (27) is rotatably connected to a fixed plate (22). A third connecting plate (210) is rotatably connected to the end of the second connecting plate (27) away from the first connecting plate (26), and a protruding plate (29) is rotatably connected to the other end of the third connecting plate (210). A rotating plate (29) is fixedly connected to the other end of the protruding plate (29). 28), the rotating plate (28) is located in the middle of the slide groove (24), and the convex plate (29) is fixedly connected to the eccentric part of the rotating plate (28). At the same time, the rotating plate (28) is slidably connected to the sliding frame (23). A motor (211) is installed on the side of the fixed plate (22) away from the convex plate (29), and the output end of the motor (211) is rotatably connected to the fixed plate (22). At the same time, the through end of the motor (211) is fixedly connected to the eccentric part of the rotating plate (28).

6. A high-power and high-efficiency circulating liquid cooler according to claim 1, characterized in that, The bidirectional turbulence assembly (3) includes a support frame (32) located at the center of the liquid storage cavity at the top of the outer shell (11), and the support frame (32) is fixedly connected to the outer shell (11). Meanwhile, a main gear (31) is rotatably connected to the middle of one side of the top surface of the support frame (32). Gear sets (33) are connected to both sides of the main gear (31), and two gears are provided in the gear set (33) that are connected to each other. At the same time, the main gear (31) meshes with one of the gears in the gear set (33), and the gear set (33) is rotatably connected to the support frame (32).

7. A high-power and high-efficiency circulating liquid cooler according to claim 6, characterized in that, The gear set (33) is provided with three sets of first link groups (34) on the top, and two connecting rods are provided in the first link group (34) and rotated together at the center. At the same time, the connecting rods in the three sets of first link groups (34) are rotated together end to end. The first link group (34) is arranged in an X-shaped structure. The two connecting rods in the first link group (34) closer to the gear set (33) are rotated together at the eccentric points of the two gears in the gear set (33). The second link group (35) is provided on the side away from the gear set (33), and two connecting rods are provided in the second link group (35) and rotated together. The second link group (35) is arranged in a V-shaped structure. One end of the two connecting rods in the second link group (35) is rotated together with the two connecting rods in the first link group (34) on the side away from the gear set (33).

8. A high-power and high-efficiency circulating liquid cooler according to claim 7, characterized in that, The two connecting rods in the second connecting rod group (35) are connected to each other through a spoiler (36) and the spoiler (36) is slidably connected to the outer shell (11). The outer shell (11) limits the position of the spoiler (36) and the spoiler (36) has several through holes. The second motor (37) is installed inside the outer shell (11) and the output end of the second motor (37) is rotatably connected to the outer shell (11). The end of the second motor (37) is rotatably connected to the support frame (31) and then connected and fixed to the main gear (32).

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