A high flux heat exchanger for fluid separation

Abstract

The present invention is applicable to the technical field of heat exchangers, and provides a high-flux heat exchanger for fluid separation, including a mounting plate, a heat exchange tube assembly, a joint control module, a speed regulating module, a rotating seat, a fixing frame, a mounting seat A, a rotating module, a rotating, heat exchange cylinder, a water inlet pipe, a water outlet pipe and a mounting seat B. The heat exchange tube assembly includes a connecting pipe and a heat exchange tube, and also includes: a joint control module, the joint control module includes a linkage unit, a regulating unit and a fixing plate, the regulating unit is circumferentially distributed on the fixing plate, one end of the regulating unit is connected to the linkage unit, and the linkage unit is connected to the speed regulating module through the joint control module. In a high-flux heat exchanger for fluid separation in the present invention, the rotating module drives the heat exchange tube to rotate in the heat exchange cylinder by cooperating with the mounting seat A, the rotating shaft, the rotating seat and the joint control module, so that it can be more evenly contacted with the cold water in the heat exchange cylinder, so that the heat is more evenly distributed, avoiding the problem of local overheating or overcooling.

Description

Technical Field

[0001] The invention belongs to the technical field of heat exchangers, and in particular relates to a high-flux heat exchanger for fluid separation. Background Art

[0002] A heat exchanger is an energy-saving device that transfers heat between two or more fluids at different temperatures. It can transfer heat from a fluid with a higher temperature to a fluid with a lower temperature so that the fluid temperature reaches the indicators specified by the process to meet the needs of process conditions. It can reduce energy consumption and thus reduce environmental pollution caused by energy production and use, and help enterprises or society achieve sustainable development goals.

[0003] The existing heat exchanger includes a base plate, a tank body, a flushing pipe and a heat exchange pipe. The inner cavity of the heat exchange pipe is provided with a mounting groove. The inner cavity of the mounting groove passes through a rotating rod that is movably connected. The surface of the rotating rod is fixedly sleeved with a guide plate. The left side of the rotating rod is fixedly connected with a transmission gear. The outer surface of the transmission gear is meshed with an outer gear ring. The coordinated use of the outer gear ring, the transmission gear, the guide plate, the rotating rod and the mounting groove has the advantage of controlling the flow rate, and can conveniently control the flow rate of the fluid, thereby preventing the internal structure of the heat exchanger from being subjected to greater stress due to excessive flow rate, thereby affecting its stability and service life.

[0004] Although the existing heat exchanger can adjust the fluid flow rate by driving the guide vane to rotate, the heat exchange tubes on the existing heat exchanger are distributed on the tank body in a fixed manner, so that during the heat exchange process, the heat inside the heat exchange tube can only be quickly exchanged with the heat exchange fluid around it. This will cause heat to accumulate around the heat exchange tube, and to a certain extent, there will be problems of local overheating or overcooling in the tank body, which will further affect the heat exchange quality and heat exchange efficiency of the heat exchanger.

[0005] Therefore, in view of the above situation, there is an urgent need to develop a high-flux heat exchanger for fluid separation to overcome the shortcomings in current practical applications. Summary of the invention

[0006] In view of the deficiencies in the prior art, an object of an embodiment of the present invention is to provide a high-flux heat exchanger for fluid separation to solve the problems in the above-mentioned background technology.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] A high-flux heat exchanger for fluid separation, comprising a mounting plate, on which a plurality of groups of heat exchange tube assemblies are distributed, the heat exchange tube assemblies comprising connecting tubes and heat exchange tubes, the connecting tubes being connected to the heat exchange tubes through a joint control module, a speed regulating module for adjusting the fluid flow rate being installed in the joint control module, the joint control modules being circumferentially distributed on a rotating seat, the rotating seat being rotatably mounted on a fixed frame, the connecting tube being installed on a mounting seat A, the mounting seat A being connected to the rotating module fixed on the mounting plate, and a rotating shaft fixedly connected to the rotating seat being concentrically fixed on one side of the mounting seat A, the heat exchange tubes passing through a heat exchange cylinder, the heat exchange cylinder being fixed on the mounting plate through two fixed frames, a water inlet pipe and a water outlet pipe being respectively installed on both sides of the heat exchange cylinder, and mounting seats B for installing heat exchange tubes being rotatably mounted on both sides of the heat exchange cylinder, and further comprising:

[0009] A linkage module, the linkage module comprising a linkage unit, a regulating unit and a fixed plate, the fixed plate being fixed on the rotating seat, the regulating unit being circumferentially distributed on the fixed plate, and one end of the regulating unit being connected to the linkage unit;

[0010] The linkage unit includes a gear C, a gear D, a mounting shaft A, a rotating rod A, a connecting rod, a rotating rod B, a mounting shaft B, a gear E and a gear F. The gear C is fixed to the mounting plate through a fixed shaft. The gear C is concentric with the mounting seat A. The gear C is circumferentially meshed with multiple sets of gears D. The gear D is rotatably mounted on the rotating seat through the mounting shaft A. A rotating rod A is fixed to one end of the mounting shaft A. The rotating rod A is connected to the rotating rod B through a connecting rod. The rotating rod B is fixed to the mounting shaft B. The mounting shaft B is rotatably mounted on the control unit. A gear E is fixed to the mounting shaft B. The gear E is intermittently meshed with the gear F fixed on the outer wall of the joint control module. The gear F is connected to the speed regulating module through the joint control module.

[0011] In the initial state, gear E and gear F are not meshed, the rotating module drives the mounting seat A to rotate, the mounting seat A drives the connecting pipe and the rotating shaft to rotate at the same time, the rotating shaft drives the rotating seat to rotate, the rotating seat drives the linkage unit, the regulating unit, the fixing plate and the joint control module to rotate at the same time, the joint control module drives the heat exchange tube to rotate in the heat exchange cylinder, and the heat exchange tube accelerates the heat exchange rate between the fluid and the cold water by rotating in the heat exchange cylinder;

[0012] Gear C drives gear D in the orbital state to rotate by cooperating with the fixed shaft. Gear D drives rotating rod A to rotate through mounting shaft A. Rotating rod A and connecting rod drive rotating rod B to reciprocate. Rotating rod B drives gear E to reciprocate through mounting shaft B.

[0013] When the flow rate of the fluid in the heat exchange tube needs to be adjusted, the control unit drives the position of the installation shaft B on the fixed block by telescoping, and the installation shaft B drives the gear E to move to a position meshing with the gear F. The gear E drives the gear F to reciprocate, and the gear F drives the speed regulation module to reciprocate through the joint control module. The speed regulation module adjusts the flow rate of the fluid by reciprocating work.

[0014] As a further technical solution of the present invention, the outer diameter of the gear E is smaller than the outer diameter of the gear F, and the length of the rotating rod A is smaller than the length of the rotating rod B.

[0015] As a further technical solution of the present invention, the control unit includes:

[0016] A slider is circumferentially and slidably distributed on the fixed plate, and a mounting shaft B is rotatably mounted on the slider;

[0017] A connecting member distributed between two adjacent sliders and rotatably connected to the two sliders respectively; and

[0018] A telescopic member is installed on the fixed plate, and one end of the telescopic member is connected to a sliding block.

[0019] As a further technical solution of the present invention, the connecting member adopts a structure formed by two straight rods crossing each other and connected by rotation at the intersection.

[0020] As a further technical solution of the present invention, the rotating module comprises:

[0021] A motor fixed to a mounting plate;

[0022] Gear A fixed to the output end of the motor; and

[0023] A gear B is fixed on the outer wall of the mounting seat A, and the gear B is meshed with the gear A.

[0024] As a further technical solution of the present invention, the joint control module includes:

[0025] Mounting brackets circumferentially distributed on the rotating seat;

[0026] A connecting valve body A fixed on one end of the mounting bracket, one end of the connecting valve body A being connected to the connecting pipe;

[0027] A connecting valve body B fixed on the other end of the mounting bracket, one end of the connecting valve body B being connected to the heat exchange tube; and

[0028] A speed regulating valve body is arranged between connecting valve body A and connecting valve body B, and both ends of the speed regulating valve body are rotatably connected to connecting valve body A and connecting valve body B respectively. A speed regulating module is installed on the inner wall of the speed regulating valve body, and a gear F is installed on the outer wall of the speed regulating valve body.

[0029] As a further technical solution of the present invention, the speed regulation module includes:

[0030] A guide plate is circumferentially distributed in the speed regulating valve body around the axis of the connecting valve body A, and one end of the guide plate is rotatably mounted on the inner wall of the connecting valve body A; and

[0031] A deflection member is rotatably mounted on the inner wall of the speed regulating valve body, and one end of the deflection member is eccentrically and rotatably connected to one side of the guide plate.

[0032] Compared with the prior art, the present invention has the following beneficial effects:

[0033] In the initial state, gear E is not meshed with gear F, and the mounting seat A of the rotating module rotates. The mounting seat A drives the connecting pipe and the rotating shaft to rotate at the same time. The rotating shaft drives the rotating seat to rotate. The rotating seat drives the linkage unit, the regulating unit, the fixing plate and the joint control module to rotate at the same time. The joint control module drives the heat exchange tube to rotate in the heat exchange cylinder. The heat exchange tube can achieve more uniform contact with the cold water in the heat exchange cylinder by rotating, so that the heat distribution is more uniform, avoiding the problem of local overheating or overcooling. The uniform heat exchange can effectively avoid the thermal stress of the heat exchange cylinder caused by uneven temperature, and the rotating action can generate forced convection inside the heat exchange tube, further enhancing the internal heat transfer effect. Effective heat exchange can reduce energy consumption, thereby reducing environmental pollution caused by energy production and use.

[0034] Gear C can drive gear D in the orbital state to rotate by cooperating with the fixed shaft. Gear D drives rotating rod A to rotate through the mounting shaft A. Rotating rod A and the connecting rod drive rotating rod B to reciprocate. Rotating rod B drives gear E to reciprocate through the mounting shaft B.

[0035] When the flow rate of the fluid in the heat exchange tube needs to be adjusted, the control unit drives the installation shaft B to move by telescoping. The installation shaft B can drive the gear E to move to a position meshing with the gear F, so that the gear E drives the gear F to rotate reciprocatingly. The gear F drives the speed control module to work reciprocatingly through the joint control module, so that the speed control module can adjust the flow rate of the fluid without stopping the machine. This efficient adaptability is difficult to achieve with traditional control valves, and the dynamic adjustment of the speed control module can be achieved through the linkage module, rather than the static opening and closing of the traditional control valve. When the flow rate needs to be adjusted urgently to cope with changes in environmental pressure, the speed control module under dynamic adjustment can respond quickly and better protect the safety of the system, which not only improves the performance and efficiency of the heat exchange system, but also brings many benefits such as cost savings, improved safety and optimized operating experience.

[0036] In order to more clearly illustrate the structural features and effects of the present invention, the present invention is described in detail below in conjunction with the accompanying drawings and specific embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] Figure 1 A schematic structural diagram of a high-flux heat exchanger for fluid separation from a first perspective provided in an embodiment of the present invention.

[0038] Figure 2 A schematic structural diagram of a high-flux heat exchanger for fluid separation from a second perspective provided in an embodiment of the present invention.

[0039] Figure 3 A schematic structural diagram of a high-flux heat exchanger for fluid separation from a third perspective provided in an embodiment of the present invention.

[0040] Figure 4 for Figure 3 An enlarged view of the structure of the heat exchange tube assembly and linkage module.

[0041] Figure 5 for Figure 2 An enlarged view of the structure of the heat exchange tube assembly and linkage module.

[0042] Figure 6 for Figure 4 An enlarged view of the front view of the heat exchange tube assembly structure.

[0043] Figure 7 for Figure 4 An enlarged view of the cross-section of the heat exchange tube assembly structure.

[0044] Figure numerals: 1-mounting plate, 2-heat exchange tube assembly, 21-connecting pipe, 22-heat exchange tube, 23-mounting seat A, 24-mounting seat B, 3-rotating module, 31-motor, 32-gear A, 33-gear B, 4-linkage control module, 41-connecting valve body A, 42-connecting valve body B, 43-speed regulating valve body, 44-mounting bracket, 5-fixed bracket, 6-heat exchange cylinder, 7-water inlet pipe, 8-water outlet pipe, 9-linkage module, 91-linkage unit, 9 11-gear C, 912-gear D, 913-installing shaft A, 914-rotating rod A, 915-connecting rod, 916-rotating rod B, 917-installing shaft B, 918-gear E, 919-gear F, 92-regulating unit, 921-slider, 922-connecting piece, 923-telescopic piece, 93-fixed plate, 10-rotating shaft, 11-speed regulation module, 111-deflecting piece, 112-guide plate, 12-rotating seat, 13-fixed shaft. DETAILED DESCRIPTION

[0045] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0046] The specific implementation of the present invention is described in detail below in conjunction with specific embodiments.

[0047] like Figures 1 to 7 As shown, a high-flux heat exchanger for fluid separation provided as an embodiment of the present invention comprises a mounting plate 1, on which a plurality of heat exchange tube assemblies 2 are distributed, wherein the heat exchange tube assemblies 2 comprise connecting tubes 21 and heat exchange tubes 22, wherein the connecting tubes 21 are connected to the heat exchange tubes 22 via a joint control module 4, wherein a speed regulating module 11 for adjusting the flow rate of the fluid is installed in the joint control module 4, wherein the joint control module 4 is circumferentially distributed on a rotating seat 12, wherein the rotating seat 12 is rotatably mounted on a fixing frame 5, wherein the connecting tubes 21 and the heat exchange tubes 22 are connected ... The tube 21 is installed on the mounting seat A23, and the mounting seat A23 is connected to the rotating module 3 fixed on the mounting plate 1, and a rotating shaft 10 fixedly connected to the rotating seat 12 is concentrically fixed on one side of the mounting seat A23. The heat exchange tube 22 passes through the heat exchange cylinder 6, and the heat exchange cylinder 6 is fixed on the mounting plate 1 through two fixing frames 5. The two sides of the heat exchange cylinder 6 are respectively installed with a water inlet pipe 7 and a water outlet pipe 8. The two sides of the heat exchange cylinder 6 are also rotatably installed with mounting seats B24 for installing the heat exchange tube 22, and also include:

[0048] The linkage module 9 includes a linkage unit 91, a regulating unit 92 and a fixing plate 93, wherein the fixing plate 93 is fixed on the rotating seat 12, the regulating unit 92 is circumferentially distributed on the fixing plate 93, and one end of the regulating unit 92 is connected to the linkage unit 91;

[0049] The linkage unit 91 includes a gear C911, a gear D912, a mounting shaft A913, a rotating rod A914, a connecting rod 915, a rotating rod B916, a mounting shaft B917, a gear E918 and a gear F919. The gear C911 is fixed to the mounting plate 1 through a fixed shaft 13. The gear C911 is concentric with the mounting seat A23. The gear C911 is circumferentially meshed with multiple sets of gears D912. The gear D912 is rotatably mounted on the rotating seat 12 through the mounting shaft A913. A rotating rod A914 is fixed to one end of the installation shaft A913, and the rotating rod A914 is connected to the rotating rod B916 through a connecting rod 915. The rotating rod B916 is fixed on the installation shaft B917, and the installation shaft B917 is rotatably installed on the control unit 92. A gear E918 is fixed on the installation shaft B917, and the gear E918 intermittently meshes with the gear F919 fixed on the outer wall of the joint control module 4. The gear F919 is connected to the speed regulation module 11 through the joint control module 4.

[0050] like Figures 1 to 5 As shown, as a preferred embodiment of the present invention, the outer diameter of the gear E918 is smaller than the outer diameter of the gear F919, and the length of the rotating rod A914 is smaller than the length of the rotating rod B916. In this way, under the premise that the gear E918 does not change the rotation direction, it can drive the gear F919 to perform reciprocating rotation motion, and then drive the speed control module 11 to work reciprocatingly without any motion interference problem.

[0051] like Figures 1 to 5 As shown, as a preferred embodiment of the present invention, the control unit 92 includes a slider 921, a connecting member 922 and a telescopic member 923. The slider 921 is circumferentially and slidably distributed on the fixed plate 93. A mounting shaft B917 is rotatably mounted on the slider 921. Two adjacent sliders 921 are rotatably connected by the connecting member 922. The telescopic member 923 is mounted on the fixed plate 93, and one end of the telescopic member 923 is connected to a slider 921.

[0052] like Figures 1 to 5 As shown, as a preferred embodiment of the present invention, the connecting member 922 preferably adopts a connecting structure composed of two rods that cross each other and are rotatably connected to each other, and one end of the two rods is respectively installed on two adjacent sliders 921.

[0053] like Figures 1 to 5 As shown, as a preferred embodiment of the present invention, the rotating module 3 includes a motor 31, a gear A32 and a gear B33. The motor 31 is fixed on the mounting plate 1. The output end of the motor 31 is fixed with a gear A32. The gear A32 is meshed with a gear B33 fixed on the outer wall of the mounting seat A23.

[0054] In this embodiment, in the initial state, gear E918 and gear F919 are not meshed, the motor 31 drives the gear A32 to rotate, the gear A32 drives the mounting seat A23 to rotate through the gear B33, the mounting seat A23 drives the connecting pipe 21 and the rotating shaft 10 to rotate at the same time, the rotating shaft 10 drives the rotating seat 12 to rotate, the rotating seat 12 drives the linkage unit 91, the regulating unit 92, the fixing plate 93 and the joint control module 4 to rotate at the same time, the joint control module 4 drives the heat exchange tube 22 to rotate in the heat exchange cylinder 6, and the heat exchange tube 22 can achieve more uniform contact with the cold water in the heat exchange cylinder 6 by rotating, so that the heat distribution is more uniform, avoiding the problem of local overheating or overcooling, and the uniform heat exchange can effectively avoid the thermal stress caused by uneven temperature of the heat exchange cylinder 6, and the rotating action can generate forced convection inside the heat exchange tube 22, further enhancing the internal heat transfer effect, and effective heat exchange can reduce energy consumption, thereby reducing environmental pollution caused by energy production and use;

[0055] Gear C911 can drive gear D912 in the orbital state to rotate by cooperating with fixed shaft 13. Gear D912 drives rotating rod A914 to rotate through mounting shaft A913. Rotating rod A914 drives rotating rod B916 to reciprocate through connecting rod 915. Rotating rod B916 drives gear E918 to reciprocate through mounting shaft B917.

[0056] When the flow rate of the fluid in the heat exchange tube 22 needs to be adjusted, the telescopic member 923 drives a slider 921 to slide on the fixed plate 93 by telescoping, and the slider 921 drives the remaining sliders 921 to move simultaneously through the connecting member 922, and the multiple groups of sliders 921 drive the mounting shafts B917 thereon to move at the same time, and the mounting shaft B917 can drive the gear E918 to move to a position meshing with the gear F919 by moving, so that the gear E918 drives the gear F919 to reciprocate, and the gear F919 drives the speed regulating module 1 through the joint control module 4. 1 reciprocating operation enables the speed regulating module 11 to adjust the flow rate of the fluid without stopping the machine. This high-efficiency adaptability is difficult to achieve with traditional control valves, and the linkage module 9 can realize dynamic adjustment of the speed regulating module 11, rather than the static opening and closing of the traditional control valve. When the flow rate needs to be adjusted urgently to cope with changes in environmental pressure, the speed regulating module 11 under dynamic adjustment can respond quickly and better protect the safety of the system, which not only improves the performance and efficiency of the heat exchange system, but also brings many benefits such as cost savings, improved safety and optimized operating experience.

[0057] In a preferred embodiment, the telescopic member 923 is preferably an electric telescopic rod.

[0058] like Figures 3 to 7As shown, as a preferred embodiment of the present invention, the joint control module 4 includes a connecting valve body A41, a connecting valve body B42, a speed regulating valve body 43 and a mounting bracket 44, the connecting valve body A41 and the connecting valve body B42 are both mounted on the rotating seat 12 through the mounting bracket 44, one end of the connecting valve body A41 is connected to the connecting pipe 21, one end of the connecting valve body B42 is connected to the heat exchange tube 22, the speed regulating valve body 43 is arranged between the connecting valve body A41 and the connecting valve body B42, and the two ends of the speed regulating valve body 43 are respectively rotatably connected to the connecting valve body A41 and the connecting valve body B42, the speed regulating module 11 is installed on the inner wall of the speed regulating valve body 43, and the gear F919 is installed on the outer wall of the speed regulating valve body 43.

[0059] like Figures 3 to 7 As shown, as a preferred embodiment of the present invention, the speed control module 11 includes a deflection member 111 and a guide plate 112, the guide plate 112 is circumferentially distributed around the axis of the connecting valve body A41 in the speed control valve body 43, and one end of the guide plate 112 is rotatably mounted on the inner wall of the connecting valve body A41, one end of the deflection member 111 is rotatably mounted on the inner wall of the speed control valve body 43, and the other end of the deflection member 111 is eccentrically and rotatably mounted on one side of the guide plate 112.

[0060] In this embodiment, gear E918 drives gear F919 to rotate reciprocatingly, gear F919 drives speed regulating valve body 43 to rotate reciprocatingly, speed regulating valve body 43 drives deflection member 111 to rotate reciprocatingly, and deflection member 111 can drive multiple groups of guide plates 112 to rotate reciprocatingly on connecting valve body A41 by reciprocating rotation, and multiple groups of guide plates 112 can adjust the flow rate of the fluid without stopping the machine by reciprocating rotation. This high-efficiency adaptability is difficult to achieve with traditional control valves, and dynamic adjustment of speed regulating module 11 can be achieved through linkage module 9, instead of static opening and closing of traditional control valves. When the flow rate needs to be adjusted urgently to cope with changes in environmental pressure, the speed regulating module 11 under dynamic adjustment can respond quickly and better protect the safety of the system, which not only improves the performance and efficiency of the heat exchange system, but also brings many benefits such as cost savings, improved safety and optimized operating experience.

[0061] In a preferred embodiment, the deflection member 111 preferably adopts an arc-shaped rod-shaped structure, and may also adopt a straight or other special-shaped rod-shaped structure that meets the requirements.

[0062] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A high-flux heat exchanger for fluid separation, comprising a mounting plate, on which a plurality of heat exchange tube assemblies are distributed, the heat exchange tube assemblies comprising connecting tubes and heat exchange tubes, the connecting tubes being connected to the heat exchange tubes through a joint control module, a speed regulating module for adjusting the fluid flow rate being installed in the joint control module, the joint control modules being circumferentially distributed on a rotating seat, the rotating seat being rotatably mounted on a fixed frame, the connecting tube being mounted on a mounting seat A, the mounting seat A being connected to the rotating module fixed on the mounting plate, and a rotating shaft fixedly connected to the rotating seat being concentrically fixed on one side of the mounting seat A, the heat exchange tubes passing through a heat exchange cylinder, the heat exchange cylinder being fixed on the mounting plate through two fixed frames, a water inlet pipe and a water outlet pipe being respectively installed on both sides of the heat exchange cylinder, and mounting seats B for mounting heat exchange tubes being rotatably mounted on both sides of the heat exchange cylinder, characterized in that Also includes: A linkage module, the linkage module comprising a linkage unit, a regulating unit and a fixed plate, the fixed plate being fixed on the rotating seat, the regulating unit being circumferentially distributed on the fixed plate, and one end of the regulating unit being connected to the linkage unit; The linkage unit includes a gear C, a gear D, a mounting shaft A, a rotating rod A, a connecting rod, a rotating rod B, a mounting shaft B, a gear E and a gear F. The gear C is fixed to the mounting plate through a fixed shaft. The gear C is concentric with the mounting seat A. The gear C is circumferentially meshed with multiple sets of gears D. The gear D is rotatably mounted on the rotating seat through the mounting shaft A. A rotating rod A is fixed to one end of the mounting shaft A. The rotating rod A is connected to the rotating rod B through a connecting rod. The rotating rod B is fixed to the mounting shaft B. The mounting shaft B is rotatably mounted on the control unit. A gear E is fixed to the mounting shaft B. The gear E is intermittently meshed with the gear F fixed on the outer wall of the joint control module. The gear F is connected to the speed regulating module through the joint control module. In the initial state, gear E and gear F are not meshed, the rotating module drives the mounting seat A to rotate, the mounting seat A drives the connecting pipe and the rotating shaft to rotate at the same time, the rotating shaft drives the rotating seat to rotate, the rotating seat drives the linkage unit, the regulating unit, the fixing plate and the joint control module to rotate at the same time, the joint control module drives the heat exchange tube to rotate in the heat exchange cylinder, and the heat exchange tube accelerates the heat exchange rate between the fluid and the cold water by rotating in the heat exchange cylinder; Gear C drives gear D in the orbital state to rotate by cooperating with the fixed shaft. Gear D drives rotating rod A to rotate through mounting shaft A. Rotating rod A and connecting rod drive rotating rod B to reciprocate. Rotating rod B drives gear E to reciprocate through mounting shaft B. When the flow rate of the fluid in the heat exchange tube needs to be adjusted, the control unit drives the position of the installation shaft B on the fixed block by telescoping, and the installation shaft B drives the gear E to move to a position meshing with the gear F. The gear E drives the gear F to reciprocate, and the gear F drives the speed regulation module to reciprocate through the joint control module. The speed regulation module adjusts the flow rate of the fluid by reciprocating work.

2. The high-flux heat exchanger for fluid separation according to claim 1, characterized in that: The outer diameter of the gear E is smaller than the outer diameter of the gear F, and the length of the rotating rod A is smaller than the length of the rotating rod B.

3. The high flux heat exchanger for fluid separation according to claim 1, characterized in that: The control unit comprises: A slider is circumferentially and slidably distributed on the fixed plate, and a mounting shaft B is rotatably mounted on the slider; A connecting member distributed between two adjacent sliders and rotatably connected to the two sliders respectively; and A telescopic member is installed on the fixed plate, and one end of the telescopic member is connected to a sliding block.

4. The high-flux heat exchanger for fluid separation according to claim 3, characterized in that: The connecting piece adopts a structure formed by two straight rods crossing each other and rotatingly connecting at the intersection.

5. The high flux heat exchanger for fluid separation according to claim 1, characterized in that: The rotating module comprises: A motor fixed to a mounting plate; Gear A fixed to the output end of the motor; and A gear B is fixed on the outer wall of the mounting seat A, and the gear B is meshed with the gear A.

6. The high flux heat exchanger for fluid separation according to claim 1, characterized in that: The joint control module comprises: Mounting brackets circumferentially distributed on the rotating seat; A connecting valve body A fixed on one end of the mounting bracket, one end of the connecting valve body A being connected to the connecting pipe; A connecting valve body B fixed on the other end of the mounting bracket, one end of the connecting valve body B being connected to the heat exchange tube; and A speed regulating valve body is arranged between connecting valve body A and connecting valve body B, and both ends of the speed regulating valve body are rotatably connected to connecting valve body A and connecting valve body B respectively. A speed regulating module is installed on the inner wall of the speed regulating valve body, and a gear F is installed on the outer wall of the speed regulating valve body.

7. The high-flux heat exchanger for fluid separation according to claim 6, characterized in that: The speed regulation module comprises: A guide plate is circumferentially distributed in the speed regulating valve body around the axis of the connecting valve body A, and one end of the guide plate is rotatably mounted on the inner wall of the connecting valve body A; and A deflection member is rotatably mounted on the inner wall of the speed regulating valve body, and one end of the deflection member is eccentrically and rotatably connected to one side of the guide plate.

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