Fin-type heat exchanger with shockproof structure and manufacturing method thereof

Abstract

The present invention discloses a fin-type heat exchanger with a shockproof structure and a manufacturing method thereof. The heat exchanger includes a heat exchange box and a shock-absorbing base plate. A guide rod and a compression screw are respectively installed on the top outer wall of the shock-absorbing base plate. A buffer spring is provided on the side wall of the guide rod. Sliding side plates are respectively installed on the two side walls of the heat exchange box. The guide rod and the compression screw are movably connected to the sliding side plates. A guide rod is respectively installed on the two side walls of the shock-absorbing base plate. A buffer spring is provided on the side wall of the guide rod. A buffer base is movably connected to the guide rod. A compression screw is respectively installed on the bottom of the buffer base. A T-shaped friction plate is movably connected to the compression screw. The present invention can adjust the shock-absorbing effect of the heat exchanger and can also make the air contact the heat exchanger more evenly, which is beneficial to the utilization of the heat energy of the heat exchanger.

Description

Technical Field

[0001] The present invention relates to the technical field of heat exchangers, and in particular to a fin-type heat exchanger with a shockproof structure and a manufacturing method thereof. Background Art

[0002] Finned heat exchangers are the most widely used heat exchange equipment for gas and liquid heat exchangers. They achieve the purpose of enhancing heat transfer by adding fins to ordinary base tubes. Finned heat exchangers are mainly used for air heating in drying systems and are the main equipment in hot air devices. The heat medium used in the heat exchanger can be steam, hot water, or thermal oil.

[0003] Although some of the current fin-type heat exchangers have shock-proof structures, the shock-proof structures are often simply connected to the heat exchangers and cannot adjust the shock-absorbing effect according to actual usage conditions. Moreover, when the existing heat exchangers exchange heat with air, the flowing air is mainly concentrated in the middle part of the heat exchanger, which easily causes waste of heat energy in the heat exchanger. At the same time, some existing heat exchangers will recycle and reuse the heat medium, but it directly returns it to the original water inlet, which easily causes the returned heat medium to stay in the pipes inside the heat exchanger for too long, without sufficient heat exchange to the air, and after mixing with the newly transported heat medium, the temperature of the new heat medium decreases, resulting in a decrease in the subsequent air heating effect. Summary of the Invention

[0004] The object of the present invention is to provide a finned heat exchanger and a manufacturing method thereof, which can adjust the damping effect of the heat exchanger and make the air contact the heat exchanger more uniform, which is beneficial to the utilization of the heat energy of the heat exchanger. At the same time, it can also prevent the backflow of heat medium from affecting the heating effect of the heat exchanger on the air.

[0005] The cam is secured to the bottom of the heat exchanger by means of a spring, and the cam is secured to the bottom of the heat exchanger by means of a spring.

[0006] Furthermore, in order to exchange heat with hot air, a heat exchange pipe is provided inside the heat exchange box, heat sinks are respectively installed on the side walls of the heat exchange pipe, and a water inlet pipe and a water outlet pipe are respectively installed at both ends of the heat exchange pipe.

[0007] Furthermore, in order to be able to reflux and reuse the heat medium, a temperature sensor is provided on the side wall of the water outlet pipe, and a reflux water tank is provided on the top outer wall of the heat exchange box body. Water pump 1, water pump 2 and water pump 3 are respectively installed on the top outer walls of the reflux water tank. The input end of water pump 1 is connected to the water outlet pipe, and the output ends of water pump 2 and water pump 3 are respectively connected to the heat exchange pipe.

[0008] Furthermore, in order to facilitate the air to enter the interior of the heat exchanger, an air outlet hood and an air inlet hood are respectively installed on the two side walls of the heat exchange box.

[0009] Furthermore, in order to allow air to better enter the interior of the heat exchanger, a fan base is installed on one side wall of the air inlet cover, and an exhaust fan is provided on one side wall of the fan base.

[0010] Furthermore, in order to disperse the air entering the heat exchanger more evenly, a rotating shaft is rotatably connected to one side wall of the air inlet hood, a guide fan blade is provided on the side wall of the rotating shaft, a rotating clamping block is installed at one end of the rotating shaft, a guide plate is installed on one side wall of the air inlet hood, a sliding main board is slidably clamped on the guide plate, a sliding clamping joint is installed on one side wall of the sliding main board, and the sliding clamping joint is slidably clamped with the rotating clamping block.

[0011] Furthermore, in order to automatically drive the sliding main board to move, a driving motor is connected to one side wall of the air inlet cover through a motor frame, the output end of the driving motor is connected to a rotating plate, a sliding head is installed on one side wall of the rotating plate, and a moving plate is installed on one side wall of the sliding main board, and the sliding head is movably engaged with the moving plate.

[0012] The present invention also provides a method for manufacturing a fin-type heat exchanger with a shockproof structure, comprising the following steps:

[0013] Step 1: Weld the heat sinks to the side walls of the heat exchange pipe, weld the heat exchange pipe to the inside of the heat exchange box, and then weld the water inlet pipe and the water outlet pipe to both ends of the heat exchange pipe respectively;

[0014] Step 2: Clamp the buffer base with the shock-absorbing base plate through the guide rod 2, then screw the tightening screw on the buffer base, then weld the sliding side plates to the two side walls of the heat exchange box respectively, then movably clamp the sliding side plates with the guide rod 1 on the shock-absorbing base plate, then clamp the side friction plate with the compression screw on the side wall of the shock-absorbing base plate in three phases, then clamp the T-shaped friction plate with the compression screw 2, and screw nuts on the compression screw 1, the compression screw 3 and the compression screw 2 respectively;

[0015] Step 3: Fix the guide fan blade on the side wall of the rotating shaft, and install the rotating clamping block on one end of the rotating shaft, and then rotatably connect the rotating shaft to the air inlet cover, and then respectively install the sliding clamping joints on one side wall of the sliding main board, and then clamp the sliding clamping joints on the sliding main board with the rotating clamping block, and clamp the sliding main board with the guide plate, and then fix the guide plate to the air inlet cover, and then connect the output end of the driving motor with the rotating plate, install the sliding head on one side wall of the rotating plate, and install the movable plate on one side wall of the sliding main board, and then clamp the sliding head with the movable plate, and then connect it to the air inlet cover through the motor mounting bracket;

[0016] Step 4: Install the air outlet cover and the air inlet cover on both side walls of the heat exchange box respectively, then install the fan base plate on the air inlet cover, and install the exhaust fan on the fan base plate;

[0017] Step 5: Install the reflux water tank on the top outer wall of the heat exchange box body, and install the water pump 1, the water pump 2 and the water pump 3 on the reflux water tank respectively, the input end of the water pump 1 is connected to the water outlet pipe, and the output ends of the water pump 2 and the water pump 3 are connected to the heat exchange pipe respectively, and then install the temperature sensor on the water outlet pipe.

[0018] The technical effects and advantages of the present invention are as follows: by rotating the rotating shaft, the angle of the guide blades can be changed, and by continuously changing the angle of the guide blades, the heat exchanger can more fully exchange heat with the air. By selecting different reflux positions through the reflux medium, it is beneficial to prevent the reflux heat medium from affecting the heat dissipation of the heat exchanger. The shock absorption effect is adjusted by changing the elastic potential energy of the buffer spring 1. At the same time, it is necessary to adjust the friction between the side friction plate and the sliding side plate. Similarly, by compressing the buffer spring 2 and adjusting the friction between the T-shaped friction plate and the bottom of the heat exchange box, the shock absorption effect in the horizontal direction of the heat exchange box can be adjusted. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1It is a schematic diagram of the overall structure of the present invention;

[0020] Figure 2 This is a schematic structural diagram of the air inlet cover of the present invention;

[0021] Figure 3 This is a schematic structural diagram of the guide rod 2 of the present invention;

[0022] Figure 4 This is a schematic diagram of the tightening screw structure of the present invention;

[0023] Figure 5 This is an enlarged structural diagram of point A of the present invention;

[0024] Figure 6 This is an enlarged structural diagram of point B of the present invention;

[0025] Figure 7 It is a schematic diagram of the enlarged structure of point C of the present invention.

[0026] Figure: 1, heat exchange box; 2, shock-absorbing bottom plate; 3, sliding side plate; 4, guide rod 1; 5, pressing screw 1; 6, guide rod 2; 7, buffer base; 8, pressing screw 2; 9, T-shaped friction plate; 10, heat exchange tube; 11, buffer spring 1; 12, pressing screw 3; 13, side friction plate; 14, tightening screw; 15, buffer spring 2; 16, pressure plate; 17, fan bottom plate; 18, air outlet cover; 19, air inlet Fan hood; 20. Exhaust fan; 21. Heat sink; 22. Water inlet pipe; 23. Water outlet pipe; 24. Temperature sensor; 25. Return water tank; 26. Water pump 1; 27. Water pump 2; 28. Water pump 3; 29. ​​Moving plate; 30. Sliding head; 31. Rotating plate; 32. Rotating shaft; 33. Rotating card block; 34. Guide plate; 35. Sliding main board; 36. Sliding card joint; 37. Guide fan blades; 38. Drive motor. DETAILED DESCRIPTION

[0027] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0028] See also Figure 1-7As shown, a fin-type heat exchanger with a shock-proof structure includes a heat exchange box body 1 and a shock-absorbing base plate 2. A guide rod 4 and a pressing screw 5 are respectively installed on the top outer wall of the shock-absorbing base plate 2. A buffer spring 11 is provided on the side wall of the guide rod 4. Sliding side plates 3 are respectively installed on the two side walls of the heat exchange box body 1. The guide rod 4 and the pressing screw 5 are respectively movably connected to the sliding side plates 3. Guide rods 26 are respectively installed on the two side walls of the shock-absorbing base plate 2. A buffer spring 215 is provided on the side wall of the guide rod 26. A buffer base 7 is movably connected to the guide rod 26. The buffer base The bottom of the seat 7 is respectively installed with a tightening screw 2 8, and a T-shaped friction plate 9 is movably connected to the tightening screw 2 8. A tightening screw 3 12 is respectively installed on the two side walls of the shock-absorbing bottom plate 2, and a side friction plate 13 is movably connected to the tightening screw 3 12. A pressure plate 16 is slidably connected to the guide rod 2 6. A tightening screw 14 is respectively provided on the buffer base 7. If the heat exchanger is vibrated, the heat exchange box 1 is damped in the vertical and horizontal directions by the buffer spring 11. The friction between the side friction plate 13 and the sliding side plate 3 can offset the elastic potential energy of the buffer spring 11 during buffering, thereby preventing The buffer spring 11 drives the heat exchange box 1 to shake repeatedly. At the same time, the buffer spring 2 15 is used to reduce the shock of the heat exchange box 1 parallel to the horizontal plane. The T-shaped friction plate 9 rubs against the bottom side wall of the heat exchange box 1 to offset the elastic potential energy of the buffer spring 2 15 during buffering, so that the heat exchanger has a good shock absorption effect. If it is necessary to adjust the shock absorption effect of the heat exchanger, the buffer spring 11 is compressed by tightening the nut on the compression screw 5. The vertical shock absorption effect is adjusted by changing the elastic potential energy of the buffer spring 11. At the same time, the compression screw is tightened to reduce the shock absorption effect. The nut on rod three 12 changes the friction between the side friction plate 13 and the sliding side plate 3, so that the friction force can roughly offset the elastic potential energy generated by the buffer spring 11 when buffering the heat exchange box 1. Similarly, by tightening the top screw 14, the pressure plate 16 is driven to compress the buffer spring 2 15, and the elastic potential energy of the buffer spring 2 15 is changed to adjust the shock absorption effect in the horizontal direction. Then, by tightening the nut on the tightening screw 2 8, the friction between the T-shaped friction plate 9 and the bottom of the heat exchange box 1 is adjusted, so that the friction force can offset the elastic potential energy of the buffer spring 2 15 when damping the heat exchanger.

[0029] A heat exchange pipe 10 is provided inside the heat exchange box 1, and heat sinks 21 are respectively installed on the side walls of the heat exchange pipe 10. A water inlet pipe 22 and a water outlet pipe 23 are respectively installed at both ends of the heat exchange pipe 10, and a temperature sensor 24 is provided on the side wall of the outlet pipe 23. A return water tank 25 is provided on the top outer wall of the heat exchange box 1, and a water pump 1 26, a water pump 27 and a water pump 3 28 are respectively installed on the top outer wall of the return water tank 25. The input end of the water pump 1 26 is connected to the outlet pipe 23, and the output ends of the water pump 27 and the water pump 3 28 are respectively connected to the heat exchange pipe 10. The reflux position of the water pump 27 is close to the water inlet pipe 22, and the water flow position of the water pump 3 28 is close to the outlet pipe 23. Hot water enters the heat exchange pipe 10 through the water inlet pipe 22, contacts with the air through the heat sink 21 provided on the side wall of the heat exchange pipe 10 for heat exchange, and then is cooled by the temperature sensor 24. The sensor 24 detects the temperature of the heat medium flowing out of the water pipe 23. If the temperature of the heat medium flowing out is still relatively high, it can be refluxed for reuse. The heat medium is pumped into the return water tank 25 by water pump 1 26 and then refluxed into the heat exchange conduit 10 by water pump 2 27. If the temperature of the heat medium has just reached the temperature for reflux but is not high enough, it can be pumped into the return water tank 25 by water pump 1 26 and then refluxed into the heat exchange conduit 10 by water pump 3 28. Because the reflux positions of water pump 2 27 and water pump 3 28 are inconsistent, by selecting different water pumps for reflux, the reflux positions are different, and the circulated distance of the reflux heat medium in the heat exchanger is also different. When the temperature of the reflux heat medium is not high enough, the reflux heat medium can only reflux a short distance in the heat exchanger repeatedly, which helps to prevent the reflux heat medium from refluxing in the heat exchanger for too long, affecting the heat dissipation of the heat exchanger.

[0030] An air outlet hood 18 and an air inlet hood 19 are respectively installed on the two side walls of the heat exchange box body 1, a fan base 17 is installed on one side wall of the air inlet hood 19, an exhaust fan 20 is provided on one side wall of the fan base 17, a rotating shaft 32 is rotatably connected to one side wall of the air inlet hood 19, a guide blade 37 is provided on the side wall of the rotating shaft 32, a rotating clamping block 33 is installed at one end of the rotating shaft 32, a guide plate 34 is respectively installed on one side wall of the air inlet hood 19, a sliding main board 35 is slidably clamped on the guide plate 34, a sliding clamping joint 36 is respectively installed on one side wall of the sliding main board 35, the sliding clamping joint 36 is slidably clamped with the rotating clamping block 33, a driving motor 38 is connected to the one side wall of the air inlet hood 19 through a motor frame, the output end of the driving motor 38 is connected to the rotating plate 31, and a rotating plate 31 is installed on one side wall of the rotating plate The sliding head 30 is equipped with a movable plate 29 on one side wall of the sliding main board 35. The sliding head 30 is movably connected to the movable plate 29, and the exhaust fan 20 draws air so that air can enter the heat exchanger. Then, the driving motor 38 drives the rotating plate 31 to rotate, so that the sliding head 30 can slide on the movable plate 29, so that the sliding head 30 can drive the movable plate 29 to move, so that the movable plate 29 can drive the sliding main board 35 to move, and then the sliding clamping joint 36 can drive the rotating clamping block 33 to rotate, so that the rotating shaft 32 can drive the guide blades 37 to rotate a certain angle. By continuously changing the angle of the guide blades 37, the air entering the heat exchanger can be evenly distributed to the interior of the heat exchange box 1, which is beneficial for the heat exchanger to more fully exchange heat with the air.

[0031] A method for manufacturing a finned heat exchanger with a shockproof structure comprises the following steps:

[0032] Step 1: Weld the heat sinks 21 onto the side walls of the heat exchange tube 10 , then weld the heat exchange tube 10 to the inside of the heat exchange box 1 , and then weld the water inlet pipe 22 and the water outlet pipe 23 to both ends of the heat exchange tube 10 .

[0033] Step 2: Connect the buffer base 7 to the shock-absorbing base plate 2 through the guide rod 2 6, then screw the tightening screw 14 on the buffer base 7, and then weld the sliding side plates 3 on both side walls of the heat exchange box 1, and then movably connect the sliding side plates 3 to the guide rod 1 4 on the shock-absorbing base plate 2, and then connect the side friction plate 13 to the clamping screw 3 12 on the side wall of the shock-absorbing base plate 2, and then clamp the T-shaped friction plate 9 to the clamping screw 2 8, and screw nuts on the clamping screw 1 5, clamping screw 3 12 and clamping screw 2 8 respectively.

[0034] Step 3: Fix the guide fan blade 37 on the side wall of the rotating shaft 32, and install the rotating clamping block 33 on one end of the rotating shaft 32, and then rotatably connect the rotating shaft 32 to the air inlet cover 19, then install the sliding clamping joints 36 on one side wall of the sliding main board 35, and then clamp the sliding clamping joints 36 on the sliding main board 35 with the rotating clamping block 33, and clamp the sliding main board 35 with the guide plate 34, and then fix the guide plate 34 on the air inlet cover 19, then connect the output end of the drive motor 38 with the rotating plate 31, install the sliding head 30 on one side wall of the rotating plate 31, and install the movable plate 29 on one side wall of the sliding main board 35, then clamp the sliding head 30 with the movable plate 29, and then connect it to the air inlet cover 19 through the motor mounting bracket.

[0035] Step 4: Install the air outlet cover 18 and the air inlet cover 19 on the two side walls of the heat exchange box body 1 respectively, then install the fan base plate 17 on the air inlet cover 19, and install the exhaust fan 20 on the fan base plate 17.

[0036] Step 5: Install a reflux water tank 25 on the top outer wall of the heat exchange box body 1, and install water pump 1 26, water pump 2 27 and water pump 3 28 on the reflux water tank 25 respectively. The input end of water pump 1 26 is connected to the water outlet pipe 23, and the output ends of water pump 2 27 and water pump 3 28 are respectively connected to the heat exchange pipe 10, and then install a temperature sensor 24 on the water outlet pipe 23.

[0037] When the present invention is in use, the exhaust fan 20 draws air so that air enters the interior of the heat exchange box 1, and hot water enters the interior of the heat exchange pipe 10 through the water inlet pipe 22. The hot water contacts the air through the heat sink 21 provided on the side wall of the heat exchange pipe 10 to exchange heat. At the same time, the driving motor 38 drives the rotating plate 31 to rotate, so that the sliding head 30 can slide on the moving plate 29, so that the moving plate 29 can drive the sliding main board 35 to move, so that the sliding card joint 36 can drive the rotating card block 33 to rotate, so that the rotating shaft 32 can rotate, so that the angle of the guide blade 37 can be changed. By continuously changing the angle of the guide blade 37, the exhaust fan 20 can enter The air can be evenly distributed inside the heat exchange box 1, so that the heat exchanger can more fully exchange heat with the air. The temperature of the heat medium flowing out of the water outlet pipe 23 is detected by the temperature sensor 24. If the temperature of the heat medium is high, it can be returned for reuse. The heat medium is pumped into the return water tank 25 by the water pump 1 26, and returned to the heat exchange pipe 10 by the water pump 2 27. If the temperature of the heat medium reaches the return temperature but is not high enough, it is pumped into the return water tank 25 by the water pump 1 26, and returned to the heat exchange pipe 10 by the water pump 3 28. The return positions of the water pump 2 27 and the water pump 3 28 are inconsistent. The return position of the water pump 3 28 is closer to the water outlet pipe 23, so that When the temperature of the returning heat medium is not high enough, it can only repeatedly reflux a short distance in the heat exchanger, which helps prevent the returning heat medium from affecting the heat dissipation of the heat exchanger. When the heat exchanger is vibrated, the buffer spring 11 is used to reduce the shock in the vertical and horizontal directions of the heat exchange box 1. At the same time, the side friction plate 13 and the sliding side plate 3 rub against each other to offset the elastic potential energy of the buffer spring 11 during buffering. The buffer spring 2 15 is used to reduce the shock parallel to the horizontal plane of the heat exchange box 1. At the same time, the T-shaped friction plate 9 rubs against the bottom side wall of the heat exchange box 1 to offset the elastic potential energy of the buffer spring 2 15 during buffering. If you need to adjust the shock absorption effect, turn the tightening screw 15 upward. The nut compresses the buffer spring 11, and the shock absorption effect is adjusted by the elastic potential energy of the buffer spring 11. At the same time, by tightening the nut on the compression screw 3 12, the friction between the side friction plate 13 and the sliding side plate 3 is adjusted, so that it can roughly offset the elastic potential energy generated by the buffer spring 11 when buffering the heat exchange box 1, thereby adjusting the shock absorption effect on the vertical direction of the heat exchange box 1. Similarly, by tightening the top screw 14, the pressure plate 16 is driven to compress the buffer spring 2 15, and then by tightening the nut on the compression screw 2 8, the friction between the T-shaped friction plate 9 and the bottom of the heat exchange box 1 is adjusted, thereby adjusting the shock absorption effect on the horizontal direction of the heat exchange box 1.

[0038] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.

[0039] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. A finned heat exchanger with a shockproof structure, comprising a heat exchange box (1) and a shock-absorbing bottom plate (2), characterized in that: A guide rod (4) and a pressing screw (5) are respectively installed on the top of the shock-absorbing base plate (2), and a buffer spring (11) is provided on the side wall of the guide rod (4). Sliding side plates (3) are respectively installed on the two side walls of the heat exchange box (1), and the guide rod (4) and the pressing screw (5) are respectively movably connected to the sliding side plates (3). A guide rod (6) is respectively installed on the two side walls of the shock-absorbing base plate (2), and a buffer spring (15) is provided on the side wall of the guide rod (6). ), a buffer base (7) is movably connected on the guide rod 2 (6), a clamping screw 2 (8) is installed on the bottom of the buffer base (7), a T-shaped friction plate (9) is movably connected on the clamping screw 2 (8), a clamping screw 3 (12) is installed on both side walls of the shock-absorbing base plate (2), a side friction plate (13) is movably connected on the clamping screw 3 (12), a pressure plate (16) is slidably connected on the guide rod 2 (6), and a tightening screw (14) is provided on the buffer base (7); A heat exchange pipe (10) is provided inside the heat exchange box (1), heat sinks (21) are respectively installed on the side walls of the heat exchange pipe (10), and a water inlet pipe (22) and a water outlet pipe (23) are respectively installed at both ends of the heat exchange pipe (10); An air outlet hood (18) and an air inlet hood (19) are respectively installed on the two side walls of the heat exchange box body (1).

2. The finned heat exchanger with a shockproof structure according to claim 1, characterized in that: A temperature sensor (24) is provided on the side wall of the water outlet pipe (23), a return water tank (25) is provided on the top outer wall of the heat exchange box (1), and water pump 1 (26), water pump 2 (27) and water pump 3 (28) are respectively installed on the top outer wall of the return water tank (25), the input end of water pump 1 (26) is connected to the water outlet pipe (23), and the output ends of water pump 2 (27) and water pump 3 (28) are respectively connected to the heat exchange pipe (10).

3. The finned heat exchanger with a shockproof structure according to claim 1, characterized in that: A fan base plate (17) is installed on one side wall of the air inlet cover (19), and an exhaust fan (20) is provided on one side wall of the fan base plate (17).

4. The finned heat exchanger with a shockproof structure according to claim 3, characterized in that: A rotating shaft (32) is rotatably connected to one side wall of the air inlet cover (19), a guide blade (37) is provided on the rotating shaft (32), a rotating clamping block (33) is installed at one end of the rotating shaft (32), a guide plate (34) is installed on one side wall of the air inlet cover (19), a sliding main board (35) is slidably clamped on the guide plate (34), a sliding clamping joint (36) is installed on one side wall of the sliding main board (35), and the sliding clamping joint (36) is slidably clamped with the rotating clamping block (33).

5. The finned heat exchanger with a shockproof structure according to claim 4, characterized in that: A driving motor (38) is connected to one side wall of the air inlet cover (19) via a motor frame, an output end of the driving motor (38) is connected to a rotating plate (31), a sliding head (30) is mounted on the rotating plate (31), a moving plate (29) is mounted on the sliding main plate (35), and the sliding head (30) is movably engaged with the moving plate (29).

6. A method for manufacturing a fin heat exchanger with a shockproof structure, characterized in that: The steps include: Step 1: Welding heat sinks (21) to the side walls of the heat exchange tube (10), then welding the heat exchange tube (10) to the inside of the heat exchange box (1), and then welding the water inlet pipe (22) and the water outlet pipe (23) to both ends of the heat exchange tube; Step 2: Connect the buffer base (7) and the shock-absorbing base plate (2) through the guide rod 2 (6), then screw the tightening screw (14) on the buffer base (7), then weld the sliding side plates (3) on the two side walls of the heat exchange box (1), and then movably connect the sliding side plates (3) and the guide rod 1 (4) on the shock-absorbing base plate (2), then connect the side friction plate (13) and the clamping screw 3 (12) on the side wall of the shock-absorbing base plate (2), then connect the T-shaped friction plate (9) and the clamping screw 2 (8), and screw nuts on the clamping screw 1 (5), the clamping screw 3 (12) and the clamping screw 2 (8) respectively; Step 3: Fix the guide blade (37) on the side wall of the rotating shaft (32), and install the rotating clamping block (33) on one end of the rotating shaft (32), and then rotate the rotating shaft (32) to connect it to the air inlet cover (19), and then install the sliding clamping joints (36) on the sliding main board (35), and then clamp the sliding clamping joints (36) on the sliding main board (35) with the rotating clamping block (33), and then fix the sliding main board ( 35) is snapped with the guide plate (34), and then the guide plate (34) is fixed on the air inlet cover (19), and then the output end of the drive motor (38) is connected to the rotating plate (31), the sliding head (30) is installed on the rotating plate (31), and the moving plate (29) is installed on the sliding main plate (35), and then the sliding head (30) is snapped with the moving plate (29), and then connected to the air inlet cover (19) through the motor mounting frame; Step 4: Install the air outlet cover (18) and the air inlet cover (19) on the two side walls of the heat exchange box (1), then install the fan base plate (17) on the air inlet cover (19), and install the exhaust fan (20) on the fan base plate (17); Step 5: Install a return water tank (25) on the top outer wall of the heat exchange box (1), and install water pump 1 (26), water pump 2 (27) and water pump 3 (28) on the return water tank (25), respectively. The input end of water pump 1 (26) is connected to the water outlet pipe (23), and the output ends of water pump 2 (27) and water pump 3 (28) are respectively connected to the heat exchange conduit (10), and then install a temperature sensor (24) on the water outlet pipe (23).

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