High-thermal-conductivity aluminum alloy profile for radiator of air conditioner

Abstract

The invention relates to the field of aluminum alloy profiles, and discloses a high-heat-conductivity air conditioner radiator aluminum alloy profile which comprises symmetrically arranged mounting plates, and heat exchange pipes are connected to the mounting plates in a sliding and penetrating mode. The heat exchange pipe is slidably sleeved with sheets distributed at equal intervals, and air channel areas allowing air blown by the air conditioner radiator to pass through are formed between the sheets. A turbulent flow mechanism is arranged in an air duct area between the sheets on the heat exchange tube; a pulling mechanism is arranged between the two mounting plates, when the air conditioner conducts heat dissipation and air blowing, air penetrates through an air channel area between the sheets, the air is disturbed under the action of the turbulent flow mechanism and applies lateral acting force to the sheets, and when the air conditioner is discharged from the tail ends of the sheets, the sheets act on the pulling mechanism due to stress. Through the turbulent flow mechanism, contact between air and the sheets is increased, and the heat exchange efficiency is improved; the sheet moves to realize self-cleaning; the turning sheets switch positions along with the wind speed to optimize the air duct; the rotating ring periphery sleeve plate and the movable plate suck and spray air, the turbulent flow auxiliary effect is enhanced, and efficient heat dissipation of the air conditioner is guaranteed in an all-around mode.

Description

Technical Field

[0001] The present invention relates to the technical field of aluminum alloy profiles, and more specifically, it relates to an aluminum alloy profile for a high - heat - conduction air - conditioner radiator. Background Art

[0002] An air - conditioner radiator is an important component in an air - conditioner system. Its main function is to dissipate the heat generated by the indoor unit (usually the evaporator) or the outdoor unit (usually the condenser) of the air - conditioner into the surrounding environment, so that the air - conditioner system can work properly to achieve the effect of refrigeration or heating. Specifically, during the refrigeration process of the air - conditioner, the evaporator absorbs the heat in the air and transfers it to the refrigerant, while the condenser helps the refrigerant to cool by releasing the heat to the external environment. When the air - conditioner is in the heating mode, the condenser plays the role of releasing heat into the room. As a key material for air - conditioner radiators, aluminum alloy profiles are widely used in modern air - conditioner equipment due to their excellent thermal conductivity, corrosion resistance, and light weight. Aluminum alloy profiles are alloyed from aluminum and other metal elements and are formed through a special extrusion processing technology, possessing the ability to dissipate the heat generated by the condenser or evaporator.

[0003] Existing aluminum alloy profiles are usually installed outside the heat - exchange tubes. Through heat conduction with the heat - exchange tubes, at the same time, a channel through which the fan airflow passes is formed between the aluminum alloy profiles and is relatively unobstructed, so that most of the air does not come into contact with the aluminum alloy profiles. This results in a short contact time between the air and the aluminum alloy profiles and the pipes, thus reducing the heat - exchange effect. Summary of the Invention

[0004] The present invention provides an aluminum alloy profile for a high - heat - conduction air - conditioner radiator to solve the technical problem of poor heat - exchange effect in the aluminum alloy profile for a high - heat - conduction air - conditioner radiator in the related art.

[0005] The present invention provides an aluminum alloy profile for a high - heat - conduction air - conditioner radiator, including symmetrically arranged mounting plates, and heat - exchange tubes slidably penetrating through the mounting plates;

[0006] Equally - spaced sheets are slidably sleeved on the heat - exchange tubes, and an air - duct area for the air - conditioner radiator to blow through is formed between the sheets;

[0007] A flow - disturbing mechanism is arranged on the heat - exchange tubes at the air - duct area between the sheets;

[0008] A pulling mechanism is arranged between the two mounting plates. When the air - conditioner blows air for heat dissipation, the air passes through the air - duct area between the sheets. The air is disturbed by the flow - disturbing mechanism and exerts a lateral force on the sheets. When the air is discharged from the ends of the sheets, the sheets act on the pulling mechanism due to the force, so that the sheets move along the length direction of the heat - exchange tubes.

[0009] As a further optimized solution of the present invention, the sheet includes a sheet body and a flipping sheet. The sheet body is slidably sleeved on the heat exchange tube. The end of the sheet body is bent to form an inclined portion. The inclined portion is rotatably connected to the flipping sheet. An elastic member is provided between the flipping sheet and the inclined portion. The flipping sheet has a first position state and a second position state;

[0010] In the first position state, the flipping sheet is located at the end of the air duct area, and there is a gap between the flipping sheet and the adjacent inclined portion;

[0011] In the second position state, the inclined portion rotates away from the end of the air duct area.

[0012] As a further optimized solution of the present invention, a roller is rotatably sleeved on the side of the flipping sheet away from the inclined portion, and the axis of the roller is located within the inclined portion.

[0013] As a further optimized solution of the present invention, the flow disturbing mechanism includes a rotating ring and a rotating plate. The rotating ring is rotatably sleeved on the heat exchange tube and is fixedly connected to the rotating plate.

[0014] As a further optimized solution of the present invention, a rolling member is rotatably sleeved at the inner circumference of the rotating ring, and the rolling member is in rolling connection with the outer circumference of the heat exchange tube.

[0015] As a further optimized solution of the present invention, a sleeve plate is installed on the outer circumference of the rotating ring. An insertion port is formed on the side of the sleeve plate away from the rotating ring. A moving plate adapted to the insertion port is slidably sleeved inside the sleeve plate. A through hole is opened on one side of the sleeve plate near the insertion port.

[0016] As a further optimized solution of the present invention, an air jet channel communicating with the inside of the sleeve plate is opened inside the rotating plate, and the air jet channel forms discharge holes on the side of the rotating plate facing the sheet body.

[0017] As a further optimized solution of the present invention, convex portions are formed on both sides of the moving plate, and guiding grooves adapted to the convex portions are opened on both sides inside the sleeve plate.

[0018] As a further optimized solution of the present invention, the pulling mechanism includes a mounting block, a pulling rope, a T-shaped rod, a return spring and a guide rod. The guide rod is fixedly sleeved on the sheet body. The end of the guide rod is slidably sleeved with a mounting plate. The insertion end of the T-shaped rod slidably extends into one mounting plate. The T-shaped end of the T-shaped rod is connected to the mounting plate through a return spring. A wire wheel is installed at the T-shaped end of the T-shaped rod. The number of mounting blocks is two, which are respectively installed on the corresponding mounting plates. One end of the pulling rope is fixedly connected to one mounting block, and the other end slidably passes through the other mounting block, bypasses the wire wheel, and is connected to the guide rod.

[0019] As a further optimized solution of the present invention, a rolling ball is provided at the place where the pulling rope passes through the mounting block.

[0020] The beneficial effects of the present invention are as follows:

[0021] Improve the heat exchange efficiency: The rotating ring and the rotating plate in the flow disturbing mechanism rotate under the action of the wind, changing the flow direction and speed of the wind, causing the wind to generate flow disturbance, increasing the contact time and area between the wind and the sheet material, and significantly improving the heat exchange efficiency. When the wind passes through the air duct area, the rotation of the rotating plate makes the wind no longer flow in a straight line, but fully contact with the sheet material to promote heat exchange.

[0022] Realize the self-cleaning function: The sheet material moves along the length direction of the heat exchange tube under the lateral force of the wind, which can prevent dust accumulation in the air duct area, clean the outer wall of the heat exchange tube, keep the air duct unobstructed, and further improve the heat dissipation effect.

[0023] Optimize the air duct adjustment: The turning piece of the sheet material can switch between two position states according to the flow rate and pressure of the wind. When the flow rate and pressure of the wind are small, the turning piece is in the first position state, and there is a gap at the end of the air duct area, and the wind flows out smoothly; when the wind is large, the turning piece rotates to the second position state, and the inclined part rotates away from the end of the air duct area, changing the shape of the air duct, enhancing the flow disturbance, and enabling the air conditioner to maintain good heat dissipation performance at different wind speeds.

[0024] Enhance the flow disturbance assistance effect: A sleeve plate and a moving plate are installed on the outer circumference of the rotating ring of the flow disturbing mechanism. When the rotating ring rotates, the moving plate moves in and out of the sleeve plate under the action of centrifugal force, realizing the functions of air suction and air jet. The external air enters the sleeve plate through the through hole and then is sprayed onto the sheet body through the air jet channel of the rotating plate, further enhancing the flow disturbance effect, improving the contact effect between the wind and the sheet body, and promoting heat exchange. Description of the Drawings

[0025] Figure 1 It is a schematic diagram of the overall structure of an aluminum alloy profile of a high thermal conductivity air conditioner radiator proposed by the present invention.

[0026] Figure 2 It is a schematic diagram of the structure of the sheet body in an aluminum alloy profile of a high thermal conductivity air conditioner radiator proposed by the present invention.

[0027] Figure 3 It is a schematic diagram of the structure of the mounting plate in an aluminum alloy profile of a high thermal conductivity air conditioner radiator proposed by the present invention.

[0028] Figure 4 It is a schematic diagram of the structure of the air duct area in an aluminum alloy profile of a high thermal conductivity air conditioner radiator proposed by the present invention.

[0029] Figure 5 It is a schematic diagram of the structure of the flow around mechanism in an aluminum alloy profile of a high thermal conductivity air conditioner radiator proposed by the present invention.

[0030] Figure 6 Schematic structural diagram of a roller in an aluminum alloy profile of a high - heat - conduction air - conditioner radiator proposed by the present invention.

[0031] Figure 7 Partial side - view sectional structural diagram of an aluminum alloy profile of a high - heat - conduction air - conditioner radiator proposed by the present invention.

[0032] In the figure:

[0033] 1. Mounting plate;

[0034] 2. Heat - exchange tube;

[0035] 3. Sheet; 31. Sheet body; 311. Inclined part; 32. Flipping sheet; 33. Elastic member; 34. Roller;

[0036] 4. Turbulence - generating mechanism; 41. Rotating ring; 42. Rotating plate; 421. Jet channel; 43. Rolling member; 44. Sleeve plate; 441. Through - hole; 45. Moving plate; 451. Protruding part;

[0037] 5. Pulling mechanism; 51. Mounting block; 52. Pulling rope; 53. T - shaped rod; 54. Return spring; 55. Guide rod; 56. Wire pulley. Specific embodiments

[0038] Now, the subject matter described herein will be discussed with reference to exemplary embodiments. It should be understood that discussing these embodiments is only to enable those skilled in the art to better understand and thus implement the subject matter described herein. Without departing from the scope of protection of the content of this specification, changes can be made to the functions and arrangements of the elements discussed. Each example can omit, substitute, or add various processes or components as needed. Additionally, the features described in some examples can also be combined in other examples.

[0039] As Figures 1 to 7 shown, an aluminum alloy profile of a high - heat - conduction air - conditioner radiator according to an embodiment of the present invention includes symmetrically arranged mounting plates 1, and a heat - exchange tube 2 is slidably inserted through the mounting plates 1; a plurality of sheets 3 are slidably sleeved on the heat - exchange tube 2 at equal intervals, and an air duct area for the air blown by the air - conditioner radiator to pass through is formed between the sheets 3; a turbulence - generating mechanism 4 is provided at the air duct area between the sheets 3 on the heat - exchange tube 2; a pulling mechanism 5 is provided between the two mounting plates 1. When the air - conditioner blows air for heat dissipation, the air passes through the air duct area between the sheets 3, the air is turbulenced under the action of the turbulence - generating mechanism 4, and a lateral force is exerted on the sheets 3. When the air is discharged from the end of the sheets 3, the sheets 3 act on the pulling mechanism 5 due to the force, so that the sheets 3 move along the length direction of the heat - exchange tube 2.

[0040] The heat exchange tube 2 is used to transfer heat and is a key component for heat transfer. The mounting plate 1 plays a role in supporting and fixing the heat exchange tube 2 to ensure the stability of the entire structure. The sheets 3 are evenly distributed on the heat exchange tube 2 to form a duct area. When the wind passes through the duct area, heat exchange occurs between the wind and the sheets 3. The setting of the flow disturbing mechanism 4 changes the flow direction and speed of the wind, so that the wind no longer passes through the duct area in a straight line but generates disturbances. When the wind is disturbed, a lateral force is exerted on the sheets 3. Since the sheets 3 can slide on the heat exchange tube 2, they will move after being subjected to the lateral force, and the pulling mechanism 5 converts the movement of the sheets 3 into a controllable motion to ensure that the sheets 3 move within a certain range.

[0041] The flow disturbing mechanism 4 makes the wind contact the sheets 3 more fully, increases the heat exchange time and area, and improves the heat exchange efficiency. The movement of the sheets 3 can prevent dust accumulation in the duct area, clean the outer wall of the heat exchange tube 2, keep the duct unobstructed, and further improve the heat dissipation effect.

[0042] In an alternative embodiment, the sheet 3 includes a sheet body 31 and a flipping sheet 32. The sheet body 31 is slidably sleeved on the heat exchange tube 2. The end of the sheet body 31 is bent to form an inclined portion 311. The inclined portion 311 is rotatably connected to the flipping sheet 32. An elastic member 33 is provided between the flipping sheet 32 and the inclined portion 311. The flipping sheet 32 has a first position state and a second position state; in the first position state, the flipping sheet 32 is located at the end of the duct area, and there is a gap between the flipping sheet 32 and the adjacent inclined portion 311; in the second position state, the inclined portion 311 rotates away from the end of the duct area.

[0043] When the inclined portion 311 does not rotate, it can block the externally scattered dust to reduce the entry into the duct area. The sheet body 31 is the main part for heat exchange with the wind. It is slidably sleeved on the heat exchange tube 2, facilitating movement when subjected to an external force. The bent design of the inclined portion 311 changes the shape of the end of the sheet body 31, causing the wind to have different flow states when passing through. The flipping sheet 32 is connected to the inclined portion 311 through the elastic member 33 (the elastic member 33 is a leaf spring or a spring). Under the action of the wind, the flipping sheet 32 can switch between the two position states. When the flow rate and pressure of the wind are small, the flipping sheet 32 is in the first position state under the action of the elastic member 33. At this time, there is a gap at the end of the duct area, and the wind can flow out smoothly; when the flow rate and pressure of the wind are large, the flipping sheet 32 overcomes the elastic force of the elastic member 33 and rotates to the second position state, and the inclined portion 311 rotates away from the end of the duct area, acting with the pulling mechanism 5, so that the sheet body 31 can move in the length direction of the heat exchange tube 2.

[0044] In an alternative embodiment, a roller 34 is rotatably sleeved on the side of the flipping sheet 32 away from the inclined portion 311, and the axis of the roller 34 is located within the inclined portion 311.

[0045] The roller 34 is installed on the flipping piece 32. When the flipping piece 32 switches between two position states, the roller 34 plays a role in reducing friction. Since the axis of the roller 34 is located within the inclined portion 311, its rotation is more stable. Moreover, when the flipping piece 32 rotates, when the roller 34 contacts the pulling mechanism 5, the friction is reduced.

[0046] In an alternative embodiment, the flow disturbing mechanism 4 includes a rotating ring 41 and a rotating plate 42. The rotating ring 41 is rotatably sleeved on the heat exchange tube 2 and is fixedly connected to the rotating plate 42.

[0047] The rotating ring 41 can rotate on the heat exchange tube 2, providing a basis for the rotation of the rotating plate 42. When the wind passes through the air duct area, it acts on the rotating plate 42, causing the rotating ring 41 and the rotating plate 42 to rotate together. The rotation of the rotating plate 42 changes the flow direction of the wind, generating a flow disturbing effect.

[0048] The rotatable setting of the flow disturbing mechanism 4 can more flexibly disturb the wind and improve the heat exchange efficiency.

[0049] In an alternative embodiment, a rolling member 43 is rotatably sleeved at the inner periphery of the rotating ring 41, and the rolling member 43 is in rolling connection with the outer periphery of the heat exchange tube 2. The rolling member 43 is a ball or a roller.

[0050] The rolling member 43 is located between the inner periphery of the rotating ring 41 and the outer periphery of the heat exchange tube 2. When the rotating ring 41 rotates, the rolling member 43 rolls, greatly reducing the friction between the rotating ring 41 and the heat exchange tube 2 and making the rotation of the rotating ring 41 easier.

[0051] In an alternative embodiment, a sleeve plate 44 is installed on the outer periphery of the rotating ring 41. An insertion opening is formed on the side of the sleeve plate 44 away from the rotating ring 41. A moving plate 45 adapted to the insertion opening is slidably sleeved inside the sleeve plate 44. A through hole 441 is opened near the insertion opening on one side of the sleeve plate 44. A jet channel 421 communicating with the inside of the sleeve plate 44 is opened inside the rotating plate 42, and the jet channel 421 forms a discharge hole on the side of the rotating plate 42 facing the sheet body 31.

[0052] The sleeve plate 44 is installed on the outer periphery of the rotating ring 41, providing a space for the installation and sliding of the moving plate 45. The moving plate 45 can slide inside the sleeve plate 44. Along with the rotation of the rotating ring 41, under the action of centrifugal force, the moving plate 45 continuously moves out of the sleeve plate 44, so that the external air enters the inside of the sleeve plate 44 through the through hole 441, playing a role in inhaling air. When the moving plate 45 continuously enters the inside of the sleeve plate 44, the air inside the sleeve plate 44 is squeezed and directed towards the sheet body 31 through the jet channel 421, increasing the contact effect with the sheet body 31 and enhancing the flow disturbing effect.

[0053] In an optional embodiment, protrusions 451 are formed on both sides of the movable plate 45 , and guide grooves adapted to the protrusions 451 are opened on both sides of the sleeve plate 44 .

[0054] The protrusion 451 cooperates with the guide groove to limit the movement direction of the movable plate 45 in the sleeve plate 44 so that the movable plate 45 can only slide along the direction of the guide groove, thereby ensuring the sliding stability of the movable plate 45.

[0055] In an optional embodiment, the pulling mechanism 5 includes a mounting block 51, a pull rope 52, a T-shaped rod 53, a return spring 54 and a guide rod 55. The guide rod 55 is fixedly mounted on the sheet body 31. The end of the guide rod 55 is slidably sleeved on the mounting plate 1. The insertion end of the T-shaped rod 53 slides into a mounting plate 1. The T-shaped end of the T-shaped rod 53 is connected to the mounting plate 1 through the return spring 54. A wire pulley 56 is installed at the T-shaped end of the T-shaped rod 53. There are two mounting blocks 51, which are respectively installed on the corresponding mounting plates 1. One end of the pull rope 52 is fixedly connected to one mounting block 51, and the other end slides through another mounting block 51, bypasses the wire pulley 56, and is connected to the guide rod 55.

[0056] The pulling mechanism 5 realizes the reciprocating movement of the sheet 31, and continuously adjusts the position of the sheet 31 under the action of wind, thereby increasing the contact opportunity between the wind and the sheet 31, improving the heat exchange efficiency, and at the same time ensuring that the sheet 31 moves within a certain range and will not separate from the heat exchange tube 2.

[0057] When the wind is strong, the flip sheet 32 ​​can be flipped to rotate and press the pull rope 52. The pull rope 52 protrudes outward, and cooperates with the lateral force exerted on the inclined portion 311. The pull rope 52 pulls the guide rod 55 to move, so that the sheet body 31 moves. During this process, the T-shaped rod 53 slides in the mounting plate 1, and the sliding of the T-shaped rod 53 compresses the return spring 54 to store elastic potential energy. When the lateral force of the wind changes, the return spring 54 releases the elastic potential energy and pushes the T-shaped rod 53 back, thereby driving the guide rod 55 and the sheet body 31 to reset through the pull rope 52, so that the sheet body 31 moves back and forth, increasing the contact effect with the wind.

[0058] In an optional embodiment, a rolling ball is provided at the location of the mounting block 51 where the tension rope 52 passes through.

[0059] The ball is installed at the place where the pull rope 52 passes through the mounting block 51. When the pull rope 52 slides on the mounting block 51, the ball rolls, reducing the friction between the pull rope 52 and the mounting block 51, reducing the wear of the pull rope 52, extending the service life of the pulling mechanism 5, and ensuring the stability of the pulling mechanism 5.

[0060] Working principle:

[0061] When the wind passes through the air duct area between the sheets 3, it acts on the rotating plate 42, driving the rotating ring 41 and the rotating plate 42 to rotate together. The rolling elements 43 on the inner circumference of the rotating ring 41 effectively reduce the rotational friction force, making the rotation easier and smoother. The rotating rotating plate 42 can change the flow direction and speed of the wind, causing the wind to generate turbulence, increasing the contact time and area between the wind and the sheet 3, thereby significantly improving the heat exchange efficiency.

[0062] The sheet 3 is composed of a sheet body 31 and a flipping sheet 32. The sheet body 31 is slidably sleeved on the heat exchange tube 2, and the inclined portion 311 at its end is rotatably connected to the flipping sheet 32. The elastic member 33 provided in the middle enables the flipping sheet 32 to have two position states. When the wind flow rate and pressure are small, the flipping sheet 32 is in the first position state under the action of the elastic member 33. At this time, there is a gap at the end of the air duct area, and the wind can flow out smoothly; when the wind is strong, the flipping sheet 32 rotates against the elastic force to the second position state, and the inclined portion 311 rotates away from the end of the air duct area. The sheet 3 will move along the heat exchange tube 2 under the lateral force of the wind. This can not only prevent dust accumulation in the air duct, but also clean the outer wall of the heat exchange tube 2, keeping the air duct unobstructed. The roller 34 on the side of the flipping sheet 32 away from the inclined portion 311 can reduce the friction force when the flipping sheet 32 switches positions and rotates stably, ensuring the normal operation of the sheet 3.

[0063] The turbulence generating mechanism 4 also has the functions of assisting in suction and jetting. The sleeve plate 44 on the outer circumference of the rotating ring 41 provides an installation and sliding space for the moving plate 45. The convex portions 451 on both sides of the moving plate 45 cooperate with the guiding grooves in the sleeve plate 44 to ensure its stable sliding. When the rotating ring 41 rotates, under the action of the centrifugal force, the moving plate 45 will move out of the sleeve plate 44. At this time, the external air enters the inside of the sleeve plate 44 through the through hole 441; when the moving plate 45 moves into the sleeve plate 44, it will squeeze the internal air, and these airs are sprayed from the discharge holes to the sheet body 31 through the jetting channels 421 of the rotating plate 42, further enhancing the turbulence effect and improving the contact effect between the wind and the sheet body 31.

[0064] The pulling mechanism 5 restricts the moving range of the sheet 3. When the sheet body 31 moves under the lateral force, when the wind force is large, the flipping sheet 32 will flip and press against the pull rope 52. Cooperating with the lateral force received by the inclined portion 311, the sheet body 31 is moved through the pull rope 52. When the wind force changes continuously, the sheet body 31 will perform reciprocating movements, further increasing the contact opportunities between the wind and the sheet body 31 and improving the heat exchange efficiency.

[0065] The above describes the embodiments of the present invention, but these embodiments are not limited to the above specific implementation manners. The above specific implementation manners are only illustrative and not restrictive. Under the inspiration of this embodiment, those of ordinary skill in the art can also make many forms, all of which fall within the protection scope of this embodiment.

Claims

1. An aluminum alloy profile for a high - heat - conducting air - conditioner radiator, comprising mounting plates (1) arranged symmetrically, characterized in that: A heat exchange tube (2) is slidably inserted through the mounting plate (1). Sheet materials (3) are slidably sleeved on the heat exchange tube (2) at equal intervals, and an air duct area for the air blown by the air conditioner radiator to pass through is formed between the sheet materials (3). A flow disturbing mechanism (4) is provided on the heat exchange tube (2) at the air duct area between the sheet materials (3). A pulling mechanism (5) is provided between the two mounting plates (1). When the air conditioner blows for heat dissipation, the air passes through the air duct area between the sheet materials (3), the air is disturbed by the flow disturbing mechanism (4), and a lateral force is applied to the sheet materials (3). When the air is discharged from the end of the sheet materials (3), the sheet materials (3) act on the pulling mechanism (5) due to the force, so that the sheet materials (3) move along the length direction of the heat exchange tube (2).

2. The aluminum alloy profile for a high heat-conducting air conditioner radiator according to claim 1, wherein: The sheet material (3) includes a sheet body (31) and a turning sheet (32). The sheet body (31) is slidably sleeved on the heat exchange tube (2). The end of the sheet body (31) is bent to form an inclined part (311). The inclined part (311) is rotatably connected to the turning sheet (32). An elastic member (33) is provided between the turning sheet (32) and the inclined part (311). The turning sheet (32) has a first position state and a second position state. In the first position state, the turning sheet (32) is located at the end of the air duct area, and there is a gap between the turning sheet (32) and the adjacent inclined part (311). In the second position state, the inclined part (311) rotates away from the end of the air duct area.

3. The aluminum alloy profile for a high heat conduction air conditioner radiator according to claim 2, wherein: A roller (34) is rotatably sleeved on the side of the turning sheet (32) away from the inclined part (311), and the axis of the roller (34) is located within the inclined part (311).

4. The aluminum alloy profile for a high heat-conducting air conditioner radiator according to claim 3, characterized in that: The flow disturbing mechanism (4) includes a rotating ring (41) and a rotating plate (42). The rotating ring (41) is rotatably sleeved on the heat exchange tube (2) and is fixedly connected to the rotating plate (42).

5. The aluminum alloy profile for a high heat-conducting air conditioner radiator according to claim 4, wherein: A rolling member (43) is rotatably sleeved on the inner circumference of the rotating ring (41), and the rolling member (42) is in rolling connection with the outer circumference of the heat exchange tube (2).

6. The aluminum alloy profile for a high heat conduction air conditioner radiator according to claim 5, wherein: A sleeve plate (44) is installed on the outer circumference of the rotating ring (41). An insertion opening is formed on the side of the sleeve plate (44) away from the rotating ring (41). A moving plate (45) adapted to the insertion opening is slidably sleeved inside the sleeve plate (44). A through hole (441) is opened on one side of the sleeve plate (44) near the insertion opening.

7. The aluminum alloy profile for a high heat-conducting air conditioner radiator according to claim 6, characterized in that: An air jet channel (421) communicating with the inside of the sleeve plate (44) is opened inside the rotating plate (42). The air jet channel (421) forms discharge holes on the side of the rotating plate (42) facing the sheet body (31).

8. A high thermal conductivity aluminum alloy profile for an air conditioner radiator according to claim 7, characterized in that: Protruding parts (451) are formed on both sides of the moving plate (45), and guiding grooves adapted to the protruding parts (451) are opened on both sides inside the sleeve plate (44).

9. The aluminum alloy profile for a high heat-conducting air conditioner radiator according to claim 8, wherein: The pulling mechanism (5) includes a mounting block (51), a pulling rope (52), a T-shaped rod (53), a return spring (54) and a guide rod (55). The guide rod (55) is fixedly sleeved on the sheet body (31), and the end of the guide rod (55) is slidably sleeved with the mounting plate (1). The inserted end of the T-shaped rod (53) slidably extends into one mounting plate (1). The T-shaped end of the T-shaped rod (53) is connected to the mounting plate (1) through the return spring (54). A wire pulley (56) is installed at the T-shaped end of the T-shaped rod (53). The number of the mounting blocks (51) is two, which are respectively installed on the corresponding mounting plates (1). One end of the pulling rope (52) is fixedly connected to one mounting block (51), and the other end slidably passes through the other mounting block (51), bypasses the wire pulley (56), and is connected to the guide rod (55).

10. A high thermal conductivity aluminum alloy profile for an air conditioner radiator according to claim 9, characterized in that: A rolling ball is provided at the place where the pulling rope (52) passes through the mounting block (51).

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