Transfer and anti-fragmentation structure for air conditioner fins

Abstract

This utility model relates to the field of air conditioner fin protection technology, specifically to a transfer and anti-scratching structure for air conditioner fins. It includes a rotating reversing seat, a support seat, and a fin support and protection structure. The fin support and protection structure is mounted on the support seat, which is mounted on the rotating reversing seat. The rotating reversing seat provides a steering force to the fin support and protection structure via the support seat. The fin support and protection structure divides the entire fin support into two parts, thereby reducing the problem of fin scratches caused by excessive weight when the air conditioner fins are flipped. This effectively solves the problem that existing tooling fixtures for air conditioner fins are inconvenient for transferring multiple fins. Through the setting of a receiving assembly and a pushing auxiliary assembly, this utility model ensures that when the receiving assembly transfers the air conditioner fins on it, the pushing auxiliary assembly is tilted at a certain angle, protecting the air conditioner fins located on the pushing auxiliary assembly and reducing the probability of scratches.

Description

Technical Field

[0001] This utility model relates to the field of air conditioner fin protection technology, specifically to a transfer anti-fragmentation structure for air conditioner fins. Background Technology

[0002] Air conditioner fins are thin, sheet-like metal components located on the condenser and evaporator of an air conditioner, typically made of copper or aluminum alloy. They exhibit a spiral or wavy shape, increasing heat exchange efficiency by expanding the surface area.

[0003] Air conditioning fins have several advantages: First, they increase the heat exchange surface area, increasing the contact area between hot and cold air or refrigerant and accelerating heat transfer. Second, they improve thermal conductivity. Third, they enhance cooling or heating effects by increasing the heat exchange surface area and improving thermal conductivity. Fourth, they improve airflow, as the shape of spiral fins can guide airflow along a spiral path, increasing the contact time and area between air and fins. Fifth, they improve system energy efficiency. Sixth, they enhance corrosion resistance and durability.

[0004] Because air conditioner fins are relatively thin, they are easily damaged during the transfer process. Damaged fins no longer meet the standards for air conditioner use. Therefore, it is necessary to actively protect the air conditioner fins during the transfer process after production.

[0005] The existing air conditioning fin transfer process requires special tooling fixtures to clamp the produced air conditioning fins. However, the existing special tooling fixtures can only clamp a small number of single-layer air conditioning fins. When using special tooling fixtures for clamping, the contact part of two adjacent air conditioning fins will be damaged. Therefore, it is not convenient to pick up and put down multiple air conditioning fins. Utility Model Content

[0006] In view of the above situation and to overcome the defects of the prior art, the purpose of this utility model is to provide a transfer anti-fragmentation structure for air conditioner fins, which effectively solves the problem that existing tooling fixtures for air conditioner fins are not convenient for transferring multiple air conditioner fins.

[0007] The technical solution provided by this utility model is a transfer and anti-fragmentation structure for air conditioner fins, including a rotary reversing seat, a support seat, and a fin support and protection structure. The fin support and protection structure is hingedly installed on the support seat to accommodate the air conditioner fins. The support seat is rotatably installed on the rotary reversing seat. The rotary reversing seat provides a steering force to the fin support and protection structure via the support seat and is used to assist the air conditioner fins in entering and exiting the interior of the fin support and protection structure.

[0008] The fin support and protection structure includes a material receiving component, a material pushing auxiliary component, and a driving component. The material receiving component and the material pushing auxiliary component form a receiving space with an opening on one side. The ends of the material receiving component and the material pushing auxiliary component can swing relative to each other through the driving component to form an outwardly expanding opening.

[0009] Preferably, the receiving assembly includes a receiving base, a finned receiving plate, and a support plate. The finned receiving plate is mounted on the support plate and slidably connected to the receiving base via a first sliding cylinder. The finned receiving plate is slidably connected to the support plate via a push cylinder.

[0010] Preferably, the receiving base is further provided with a plurality of receiving rollers located on both sides of the first sliding cylinder. The receiving rollers are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding.

[0011] Preferably, the material pushing auxiliary component includes a material pushing base, a fin auxiliary plate, and a second sliding cylinder. The fin auxiliary plate is slidably connected to the material pushing base via the second sliding cylinder. The material pushing base is also provided with a plurality of material pushing auxiliary rollers located on both sides of the second sliding cylinder. The material pushing auxiliary rollers are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding.

[0012] Preferably, the end of the fin auxiliary plate away from the pusher base is provided with an auxiliary feed plate that is inclined toward the side away from the fin receiving plate.

[0013] Preferably, the driving assembly includes a receiving and swinging part and a pushing auxiliary tilting part. One end of the receiving and swinging part is fixedly connected to the support base, and the other end is rotatably connected to the receiving base. One end of the pushing auxiliary tilting part is hinged to the support base, and the other end is hinged to the pushing base. The support base is provided with multiple hinge platforms. The receiving base is inserted into one of the hinge platforms and rotatably connected to the hinge platform. The pushing base is inserted into one of the hinge platforms and rotatably connected to the hinge platform.

[0014] Preferably, the receiving and swinging part includes a driving source, a passive source, and a connecting component. The driving source is fixedly connected to the support base and provides rotational power to the passive source via the connecting component.

[0015] Preferably, the material pushing auxiliary tilting part includes a material pushing auxiliary cylinder, one end of which is hinged to the support base, and the other end of which is hinged to the material pushing base.

[0016] Preferably, the rotary reversing seat includes a fixed platform, a rotary cylinder, and an auxiliary bearing. The support seat is mounted on the fixed platform via the auxiliary bearing, and the rotary cylinder is mounted on the support seat and rotatably connected to the fixed platform.

[0017] The beneficial effects of this utility model are as follows:

[0018] This invention uses the receiving and receiving component and the pushing auxiliary component to form a receiving space to transfer the processed air conditioning fins. After the air conditioning fins are transferred, the receiving and receiving component and the pushing auxiliary component can be rotated to a suitable angle by a corresponding rotary cylinder, so as to better transfer the air conditioning fins to the next work station.

[0019] This utility model, through the auxiliary feeding plate provided on the pushing and supporting assembly, can prevent damage to the air conditioning fins when they enter the receiving space formed by the feeding and pushing assemblies via the transfer assembly, thus achieving better protection for the air conditioning fins.

[0020] Furthermore, the fin support and protection structure divides the entire fin support into two parts, thereby reducing the problem of fin warping due to excessive weight when the air conditioner fins are rotated.

[0021] This invention, through the arrangement of a receiving component and a pushing auxiliary component, allows the pushing auxiliary component to be tilted at a certain angle when the receiving component transfers the air conditioning fins on it, thus protecting the air conditioning fins located on the pushing auxiliary component. Furthermore, when the receiving auxiliary component returns to its normal position, the pushing cylinder, the first sliding cylinder, and the support plate can further protect the air conditioning fins on the pushing auxiliary component, reducing the probability of scratching the air conditioning fins. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the main structure of this utility model;

[0023] Figure 2 This is a schematic diagram of the left-side structure of this utility model after removing the push cylinder;

[0024] Figure 3 This is a front view schematic diagram of the material pushing auxiliary component swinging to its limit angle in this utility model;

[0025] Figure 4 This is a front view schematic diagram of the material receiving component swinging to its limit angle in this utility model;

[0026] In the diagram, 1-support base; 2-receiving base; 3-fin receiving plate; 4-support plate; 5-first sliding cylinder; 6-push cylinder; 7-receiving roller; 8-push base; 9-fin auxiliary plate; 10-second sliding cylinder; 11-push auxiliary roller; 12-auxiliary feeding plate; 13-hinge platform; 14-drive source; 15-passive source; 16-connecting component; 17-push auxiliary cylinder; 18-fixed platform; 19-rotary cylinder; 20-auxiliary bearing. Detailed Implementation

[0027] The specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings.

[0028] Refer to the instruction manual appendix Figure 1-4 The transfer and anti-fracture structure for air conditioning fins includes a rotary reversing seat, a support seat 1, and a fin support and protection structure. The fin support and protection structure is hinged to the support seat 1 to accommodate the air conditioning fins. The support seat 1 is rotatably mounted on the rotary reversing seat. The rotary reversing seat provides steering force to the fin support and protection structure through the support seat 1 and is used to assist the air conditioning fins in entering and exiting the interior of the fin support and protection structure.

[0029] The fin support and protection structure includes a receiving assembly, a pushing auxiliary assembly, and a drive assembly. The receiving assembly and the pushing auxiliary assembly form a receiving space with an opening on one side. The air conditioning fins are moved into the receiving space by the transfer equipment. The receiving space protects the air conditioning fins that need to be transferred. The ends between the receiving assembly and the pushing auxiliary assembly can swing relative to each other to form an outwardly expanding opening. When the air conditioning fins need to be transferred to the next station, the drive assembly drives the openings of the receiving assembly and the pushing auxiliary assembly to swing.

[0030] The length of the receiving component is longer than that of the pushing component. After the air conditioning fins are in the receiving space, more than half of the air conditioning fins are located on one side of the receiving component, and the remaining air conditioning fins are located on one side of the pushing component.

[0031] The receiving assembly includes a receiving base 2, a fin receiving plate 3, and a support plate 4. The fin receiving plate 3 is mounted on the support plate 4 and is slidably connected to the receiving base 2 via a first sliding cylinder 5. The fin receiving plate 3 is slidably connected to the support plate 4 via a pushing cylinder 6. The air conditioning fins are placed on the receiving base 2. The pushing cylinder 6, which is located on the support plate 4, drives the fin receiving plate 3, thereby changing the accommodating space between the fin receiving plate 3 and the pushing auxiliary assembly. The different accommodating spaces correspond to different numbers of air conditioning fins.

[0032] The receiving base 2 is also equipped with multiple receiving rollers 7 located on both sides of the first sliding cylinder 5. The receiving rollers 7 are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding. The receiving rollers 7 contact the lower end of the air conditioning fins. Under the action of the receiving rollers 7, the sliding relationship between the air conditioning fins and the receiving base 2 changes from sliding friction to rolling friction, which allows for better movement.

[0033] The material pushing auxiliary assembly includes a material pushing base 8, a fin auxiliary plate 9, and a second sliding cylinder 10. The fin auxiliary plate 9 is slidably connected to the material pushing base 8 via the second sliding cylinder 10. The material pushing base 8 is also provided with a plurality of material pushing auxiliary rollers 11 located on both sides of the second sliding cylinder 10. The material pushing auxiliary rollers 11 are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding. Under the action of the second sliding cylinder 10, the fin auxiliary plate 9 can move towards the fin support plate, thereby changing the accommodating space used to accommodate the air conditioning fins.

[0034] The fin auxiliary plate 9 is provided with an auxiliary feeding plate 12 that is inclined to the side away from the fin receiving plate 3 at one end away from the pusher base 8. The auxiliary feeding plate 12 is in a state of unilateral inclination. When the air conditioning fins move into the receiving space, the auxiliary feeding plate 12 first contacts the air conditioning fins. Due to the inclination of the auxiliary feeding plate 12, the air conditioning fins can enter the receiving space better.

[0035] The drive assembly includes a receiving and receiving swinging part and a pushing auxiliary tilting part. One end of the receiving and receiving swinging part is fixedly connected to the support base 1, and the other end is rotatably connected to the receiving base 2. One end of the pushing auxiliary tilting part is hinged to the support base 1, and the other end is hinged to the pushing base 8. The receiving and receiving swinging part is used to drive the receiving base 2 to tilt outward to a 90-degree state, and the pushing auxiliary tilting part is used to drive the pushing base 8 to tilt outward to a 10-degree state.

[0036] The support base 1 is provided with multiple hinge platforms 13. The receiving base 2 is inserted into one of the hinge platforms 13 and is rotatably connected to the hinge platform 13. The pushing base 8 is inserted into one of the hinge platforms 13 and is rotatably connected to the hinge platform 13. The hinge platform 13 provides a certain degree of limitation for the swing of the pushing base 8 and the receiving base 2. Moreover, under the action of the hinge platform 13, the receiving base 2 and the pushing base 8 can be better rotated.

[0037] The receiving swing part includes a drive source 14, a passive source 15 and a connecting component 16. The drive source 14 is fixedly connected to the support base 1 and provides rotational power to the passive source 15 through the connecting component 16. The drive source 14 can be an axial rotating component such as a motor or a linear motion component such as a cylinder and an electric push rod.

[0038] If the drive source 14 is a motor, the connecting component 16 can be a chain. A drive sprocket is fixedly connected to the output end of the motor. The passive source 15 is a passive sprocket. The drive sprocket and the passive sprocket are connected by a chain. The motor is a servo motor. The servo motor can provide a corresponding braking function by stopping its rotation after rotating a predetermined angle on its output shaft.

[0039] If the drive source 14 is a cylinder or an electric actuator, the connecting component 16 can be a fixed rod on the opposite side of the extension line of the hinge point between the receiving base 2 and the hinge platform 13. At the same time, a corresponding sliding groove is provided on the fixed rod, and a slider is hinged into the sliding groove on the output end of the cylinder. The swing angle of the receiving base 2 is controlled by controlling the length of the cylinder output end.

[0040] Since the swing angle that can be formed by linear motion components such as cylinders and electric actuators is relatively low, using axial rotation components such as servo motors, chains and sprockets to realize the swing of the receiving base 2 is a better choice.

[0041] The material pushing auxiliary tilting part includes a material pushing auxiliary cylinder 17. One end of the material pushing auxiliary cylinder 17 is hinged to the support base 1, and the other end of the material pushing auxiliary cylinder 17 is hinged to the material pushing base 8. The material pushing base 8 is driven to swing outward at a suitable angle by the activation of the material pushing auxiliary cylinder 17.

[0042] The rotating reversing seat includes a fixed platform 18, a rotary cylinder 19, and an auxiliary bearing 20. The support base 1 is mounted on the fixed platform 18 via the auxiliary bearing 20. The rotary cylinder 19 is mounted on the support base 1 and rotatably connected to the fixed platform 18. Under the action of the rotary cylinder 19, the support base 1 can rotate along the output shaft of the rotary cylinder 19, thereby moving the receiving space between the receiving component and the pushing auxiliary component to a suitable angle.

[0043] When this utility model is in use, the staff uses a transfer tool to transfer the processed air conditioning fins into the receiving space formed between the receiving component and the pushing auxiliary component. The rotary cylinder 19 is started to drive the support base 1 to rotate to a suitable angle.

[0044] At this time, the receiving component and the next station are in the same vertical plane. The servo motor is started. Under the action of the servo motor, the active sprocket, the chain and the passive sprocket, the receiving base 2 can drive the air conditioning fins on it to swing to the next station.

[0045] While the servo motor is started, the pusher auxiliary cylinder 17 drives the corresponding pusher base 8 to swing synchronously. However, the swing angle of the pusher base 8 is smaller than that of the receiving base 2. During the synchronous swing of the pusher base 8 and the receiving base 2, the air conditioning fins on the receiving base 2 and the fins on the pusher base 8 are separated by gravity. This can prevent damage to the adjacent air conditioning fins when the air conditioning fins on the receiving base 2 move to the next station.

[0046] When the air conditioning fins on the receiving base 2 are removed from the next work station, the servo motor reverses and drives the receiving base 2 to rotate to a vertical position. At the same time, the pushing auxiliary cylinder 17 drives the pushing base 8 to swing in the vertical direction. During the swinging of the receiving base 2 in the vertical direction, the first sliding cylinder 5 drives the support plate 4 to move towards the pushing auxiliary component, which serves to limit the position of the air conditioning fins on the pushing base 8.

[0047] When both the receiving base 2 and the pushing base 8 are in a vertical position, the push cylinder 6 is started and drives the fin receiving plate 3 to approach the air conditioning fins on the pushing base 8 and clamp the air conditioning fins together with the fin auxiliary plate 9. After the air conditioning fins are clamped, the first sliding cylinder 5 and the second sliding cylinder 10 are started synchronously, and the first sliding cylinder 5 and the second sliding cylinder 10 move in opposite directions. Through the joint action of the first sliding cylinder 5 and the second sliding cylinder 10, the air conditioning fins are moved above the receiving base 2. The servo motor start process is repeated to achieve the purpose of moving the remaining air conditioning fins to the next work station.

[0048] This utility model uses the receiving and receiving component and the pushing auxiliary component to form a receiving space to transfer the processed air conditioning fins. After the air conditioning fins are transferred, the receiving and receiving component and the pushing auxiliary component can be rotated to a suitable angle by the corresponding rotary cylinder 19, so that the air conditioning fins can be transferred to the next work station in a better way.

[0049] This utility model, through the auxiliary feeding plate 12 provided on the pushing and supporting assembly, can prevent damage to the air conditioning fins when they enter the receiving space formed by the feeding and pushing assemblies via the transfer assembly, thus achieving better protection for the air conditioning fins.

[0050] This utility model, through the setting of a receiving component and a pushing auxiliary component, allows the pushing auxiliary component to be tilted at a certain angle when the receiving component transfers the air conditioning fins on it, thus protecting the air conditioning fins located on the pushing auxiliary component. Moreover, when the receiving auxiliary component returns to its normal position, the pushing cylinder 6, the first sliding cylinder 5, and the support plate 4 can further protect the air conditioning fins on the pushing auxiliary component, reducing the probability of scratching the air conditioning fins.

Claims

1. A transfer and anti-fracture structure for air conditioner fins, comprising a rotary reversing seat, a support seat (1) and a fin support and protection structure, wherein the fin support and protection structure is hingedly mounted on the support seat (1) to accommodate air conditioner fins, the support seat (1) is rotatably mounted on the rotary reversing seat, and the rotary reversing seat provides a steering force to the fin support and protection structure via the support seat (1) and is used to assist the air conditioner fins in entering and exiting the interior of the fin support and protection structure; characterized in that The fin support and protection structure includes a material receiving component, a material pushing auxiliary component, and a driving component. The material receiving component and the material pushing auxiliary component form a receiving space with an opening on one side. The ends of the material receiving component and the material pushing auxiliary component can swing relative to each other through the driving component to form an outwardly expanding opening.

2. The transfer prevention fin flower structure for an air conditioner fin according to claim 1, characterized by: The receiving assembly includes a receiving base (2), a fin receiving plate (3), and a support plate (4). The fin receiving plate (3) is mounted on the support plate (4) and is slidably connected to the receiving base (2) via a first sliding cylinder (5). The fin receiving plate (3) is slidably connected to the support plate (4) via a push cylinder (6).

3. The transfer prevention fin flower structure for an air conditioner fin according to claim 2, characterized by: The receiving base (2) is also provided with a plurality of receiving rollers (7) located on both sides of the first sliding cylinder (5). The receiving rollers (7) are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding.

4. The transfer prevention fin flower structure for an air conditioner fin according to claim 1, characterized by: The material pushing auxiliary assembly includes a material pushing base (8), a fin auxiliary plate (9), and a second sliding cylinder (10). The fin auxiliary plate (9) is slidably connected to the material pushing base (8) via the second sliding cylinder (10). The material pushing base (8) is also provided with a plurality of material pushing auxiliary rollers (11) located on both sides of the second sliding cylinder (10). The material pushing auxiliary rollers (11) are used to support the lower end of the air conditioning fins and assist the air conditioning fins in sliding.

5. The transfer anti-fragmentation structure for air conditioner fins according to claim 4, characterized in that: The fin auxiliary plate (9) has an auxiliary feeding plate (12) that is inclined toward the side away from the fin receiving plate (3) at one end away from the pusher base (8).

6. The transfer anti-fragmentation structure for air conditioner fins according to claim 5, characterized in that: The drive assembly includes a receiving swing part and a pushing auxiliary tilting part. One end of the receiving swing part is fixedly connected to the support base (1), and the other end is rotatably connected to the receiving base (2). One end of the pushing auxiliary tilting part is hinged to the support base (1), and the other end is hinged to the pushing base (8). The support base (1) is provided with multiple hinge platforms (13). The receiving base (2) is inserted into one of the hinge platforms (13) and rotatably connected to the hinge platform (13). The pushing base (8) is inserted into one of the hinge platforms (13) and rotatably connected to the hinge platform (13).

7. The transfer anti-fragmentation structure for air conditioner fins according to claim 6, characterized in that: The receiving and swinging part includes a drive source (14), a passive source (15), and a connecting component (16). The drive source (14) is fixedly connected to the support base (1) and provides rotational power to the passive source (15) via the connecting component (16).

8. The transfer anti-fragmentation structure for air conditioner fins according to claim 6, characterized in that: The material pushing auxiliary tilting part includes a material pushing auxiliary cylinder (17), one end of which is hinged to the support base (1), and the other end of which is hinged to the material pushing base (8).

9. The transfer anti-fragmentation structure for air conditioner fins according to claim 6, characterized in that: The rotating reversing seat includes a fixed platform (18), a rotary cylinder (19), and an auxiliary bearing (20). The support base (1) is mounted on the fixed platform (18) via the auxiliary bearing (20), and the rotary cylinder (19) is mounted on the support base (1) and rotatably connected to the fixed platform (18).

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