Aluminum pole forklift spreader

Abstract

This application provides an aluminum rod forklift lifting device, which includes a connecting base and a lifting assembly disposed on the connecting base. The connecting base includes a horizontal connecting rod, a vertical connecting rod disposed on the horizontal connecting rod, and a connecting groove disposed on the vertical connecting rod. Multiple vertical connecting rods are spaced apart along the length of the horizontal connecting rods. Forklift forks can be respectively matched and extended into the connecting grooves, allowing the lifting assembly to be detachably mounted on the forklift forks. By providing a set of connecting holes and fasteners between the connecting base and the forklift forks, a stable connection between the lifting device and the forklift can be achieved. By using the lifting device in conjunction with a forklift, aluminum rod loading and unloading operations can be performed directly using the forklift, eliminating the need for a gantry crane or other crane, significantly shortening logistics time and reducing transportation costs. Simultaneously, this lifting device has a simple structure, is easy to operate, has low implementation costs, is easy to promote and implement, and can effectively improve loading and unloading efficiency, reduce labor intensity, and enhance user experience.

Description

Technical Field

[0001] This application belongs to the field of building material hoisting and construction technology, specifically relating to an aluminum rod forklift lifting device. Background Technology

[0002] Currently, unloading aluminum rods typically relies on gantry cranes or regular cranes. This traditional method has the following drawbacks: First, gantry cranes are mainly used for large-scale lifting operations, and using them for unloading aluminum rods is a waste of resources. Furthermore, trucks need to transport the rods a long distance to the gantry crane area, increasing logistics time and costs. Second, when aluminum rods are stacked in double layers, a lifting height of 3.6 meters is required, while the lifting height of ordinary forklifts is only 3 meters, which cannot meet the requirement. Even with modifications to increase the forklift's lifting height, the aluminum rods still require a considerable lifting distance, making stable lifting difficult and posing safety hazards.

[0003] Furthermore, existing aluminum rod forklift lifting devices also have design and functional flaws. On the one hand, the device's structure is not stable enough, making it prone to swaying during lifting, affecting loading and unloading efficiency and safety. On the other hand, the material and design of the device do not fully consider the characteristics of aluminum rods; for example, the smooth surface of aluminum rods makes them prone to sliding within the device, increasing the risk of the rod falling during loading and unloading. Moreover, existing lifting devices have poor versatility and cannot adapt to aluminum rods of different specifications and shapes, requiring frequent device replacements, increasing operational complexity and cost.

[0004] Therefore, to solve the above problems, there is an urgent need to develop a new type of aluminum rod forklift lifting device to replace the traditional gantry crane. This device can directly unload aluminum rods near the workshop, saving logistics time and costs, ensuring a stable and efficient lifting process, improving the safety and reliability of loading and unloading, and thus enhancing the efficiency and quality of the entire aluminum rod loading and unloading operation. Utility Model Content

[0005] This application addresses the technical problem that in the prior art, unloading aluminum rods typically relies on gantry cranes or cranes. During the lifting / unloading process, gantry cranes are inconvenient to move, and trucks need to transport goods over long distances to the gantry crane area, which significantly increases logistics time and costs. Traditional forklifts also have insufficient carrying capacity and cannot meet the loading and unloading needs of aluminum rods. Therefore, this application proposes an aluminum rod forklift lifting device.

[0006] This application adopts the following solution: an aluminum rod forklift lifting device, including a connecting seat and a lifting assembly disposed on the connecting seat. The connecting seat includes a horizontal connecting rod, a vertical connecting rod disposed on the horizontal connecting rod, and a connecting groove disposed on the vertical connecting rod. Multiple vertical connecting rods are spaced apart along the length direction of the horizontal connecting rod. The forklift forks can be respectively matched and extended into the connecting grooves so that the lifting assembly can be detachably disposed on the forklift forks.

[0007] In some feasible embodiments, the connector further includes a group of connecting holes disposed between the vertical connecting rod and the forklift fork, and fasteners disposed on the group of connecting holes.

[0008] In some feasible embodiments, the connecting hole group is provided with multiple holes spaced apart along the length direction of the vertical connecting rod.

[0009] In some feasible embodiments, the connecting seat further includes a first reinforcing rod group disposed between the two vertical connecting rods. The first reinforcing rod group includes a first inclined rod disposed between the two vertical connecting rods and a second inclined rod disposed between the two vertical connecting rods. The first inclined rod and the second inclined rod are intersectingly disposed between the two vertical connecting rods.

[0010] In some feasible embodiments, the lifting assembly includes a support frame disposed on the connecting seat, a boom disposed on the support frame, and a hook disposed on the end of the boom away from the connecting seat.

[0011] In some feasible embodiments, the support frame includes a main frame body disposed on the connecting seat, a first support rod disposed on the main frame body, a second support rod disposed between the boom and the connecting seat, and a second reinforcing rod group disposed between the boom and the main frame body. The main frame body and the first support rod are arranged in an "A" shape, and the boom is mounted on the first support rod.

[0012] In some feasible embodiments, the second reinforcing rod group includes a third diagonal rod inclined between the boom and the main frame, a fourth diagonal rod with one end on the boom and the other end on the top of the main frame, and a plurality of fifth diagonal rods disposed between the fourth diagonal rod and the boom.

[0013] In some feasible embodiments, a sliding assembly is further provided between the boom and the hook. The sliding assembly includes a slider on the hook and a slide rail arranged along the length of the boom. The slider is matched within the slide rail so that the hook slides along the length of the boom.

[0014] Compared with the prior art, this application has the following beneficial effects:

[0015] This application provides an aluminum rod forklift lifting device, which includes a connecting base and a lifting assembly disposed on the connecting base. The connecting base includes a horizontal connecting rod, a vertical connecting rod disposed on the horizontal connecting rod, and a connecting groove disposed on the vertical connecting rod. Multiple vertical connecting rods are spaced apart along the length of the horizontal connecting rods. Forklift forks can be respectively matched and extended into the connecting grooves, allowing the lifting assembly to be detachably mounted on the forklift forks. By providing a set of connecting holes and fasteners between the connecting base and the forklift forks, a stable connection between the lifting device and the forklift can be achieved. By using the lifting device in conjunction with a forklift, aluminum rod loading and unloading operations can be performed directly using the forklift, eliminating the need for a gantry crane or other crane, significantly shortening logistics time and reducing transportation costs. Simultaneously, this lifting device has a simple structure, is easy to operate, has low implementation costs, is easy to promote and implement, and can effectively improve loading and unloading efficiency, reduce labor intensity, and enhance user experience. Attached Figure Description

[0016] Figure 1 This is a front view of an aluminum rod forklift lifting device according to this application;

[0017] Figure 2 This is a side view of an aluminum rod forklift lifting device according to this application;

[0018] Figure 3 This is a schematic diagram of the connector of this application;

[0019] Figure 4 This is a structural schematic diagram of the support frame of this application. Detailed Implementation

[0020] Combination Figures 1-4 The following description further illustrates the technical solution proposed in this application. This application provides an aluminum rod forklift lifting device, including a connecting seat 1 and a lifting assembly 2 disposed on the connecting seat 1. The connecting seat 1 includes a horizontal connecting rod 10, a vertical connecting rod 11 disposed on the horizontal connecting rod 10, and a connecting groove 12 disposed on the vertical connecting rod 11. Multiple vertical connecting rods 11 are spaced apart along the length direction of the horizontal connecting rod 10. The forklift forks can be respectively matched and extended into the connecting grooves 12, so that the lifting assembly 2 can be detachably disposed on the forklift forks.

[0021] This application provides an aluminum rod forklift lifting device, which includes a connecting base and a lifting assembly disposed on the connecting base. The connecting base includes a horizontal connecting rod, a vertical connecting rod disposed on the horizontal connecting rod, and a connecting groove disposed on the vertical connecting rod. Multiple vertical connecting rods are spaced apart along the length of the horizontal connecting rods. Forklift forks can be respectively matched and extended into the connecting grooves, allowing the lifting assembly to be detachably mounted on the forklift forks. By providing a set of connecting holes and fasteners between the connecting base and the forklift forks, a stable connection between the lifting device and the forklift can be achieved. By using the lifting device in conjunction with a forklift, aluminum rod loading and unloading operations can be performed directly using the forklift, eliminating the need for a gantry crane or other crane, significantly shortening logistics time and reducing transportation costs. Simultaneously, this lifting device has a simple structure, is easy to operate, has low implementation costs, is easy to promote and implement, and can effectively improve loading and unloading efficiency, reduce labor intensity, and enhance user experience.

[0022] In this embodiment, the connecting seat 1 also includes a connecting hole group 13 disposed between the vertical connecting rod 11 and the forklift fork, and fasteners disposed on the connecting hole group 13.

[0023] In actual implementation, the connection hole group is a threaded connection hole group, and the fasteners include fastening nuts and fastening bolts.

[0024] In actual implementation, the front end of the forklift fork extends into the connecting slot 12 of the connecting seat. After the forklift fork is inserted into the connecting slot 12, the lifting device is fixed to the forklift fork through the connecting hole group 13 and fasteners. The connecting hole group 13 is on the vertical connecting rod 11. Fasteners pass through the connecting hole group 13 to tightly connect the vertical connecting rod 11 and the forklift fork, so as to ensure that the lifting device will not loosen due to external forces (such as the weight of the aluminum rod, vibration during forklift travel, etc.) during the lifting process. This allows the lifting components to be detachably connected to the forklift, and the loading and unloading of the aluminum rod can be completed without a gantry crane or crane, which greatly shortens the logistics time and reduces transportation costs.

[0025] In actual implementation, the cross-sectional shape of the connecting hole assembly is racetrack-shaped. The racetrack-shaped design facilitates quick positioning of the forklift fork and the connecting seat, improving installation efficiency.

[0026] In this embodiment, the connecting hole group 13 is provided with multiple holes spaced apart along the length direction of the vertical connecting rod 11.

[0027] In this embodiment, the connecting seat 1 further includes a first reinforcing rod group 14 disposed between the two vertical connecting rods 11. The first reinforcing rod group 14 includes a first inclined rod 15 disposed between the two vertical connecting rods 11 and a second inclined rod 16 disposed between the two vertical connecting rods 11. The first inclined rod 15 and the second inclined rod 16 are intersectingly disposed between the two vertical connecting rods 11.

[0028] In actual implementation, by cross-setting the first and second diagonal braces on the connecting seat, the support strength of the connecting seat is further improved, and the service life of the lifting device provided in this application is extended.

[0029] In this embodiment, the hoisting assembly 2 includes a support frame 20 on the connecting seat 1, a boom 21 on the support frame 20, and a hook 22 on the end of the boom 21 away from the connecting seat 1.

[0030] In this embodiment, the support frame 20 includes a main frame 23 disposed on the connecting seat 1, a first support rod 24 disposed on the main frame 23, a second support rod 25 disposed between the boom 21 and the connecting seat 1, and a second reinforcing rod group 26 disposed between the boom 21 and the main frame 23. The main frame 23 and the first support rod 24 are arranged in an "A" shape, and the boom 21 is mounted on the first support rod 24.

[0031] In actual implementation, when it is necessary to hoist the aluminum rod, the aluminum rod is hung on the hook 22. The boom 21, supported by the first support rod 24 and the main frame 23, is able to bear the weight of the aluminum rod. The second support rod 25 and the second reinforcing rod group 26 further disperse and transmit external forces, ensuring the stability of the entire hoisting assembly 2.

[0032] During the hoisting process, the weight of the aluminum rod is transferred to the boom 21 via the hook 22, and the boom 21 then transfers the force to the first support rod 24 and the main frame 23. Due to the stability of the "A"-shaped structure, the entire hoisting assembly 2 can remain balanced and will not tilt or sway due to the weight of the aluminum rod, significantly improving the stability of loading and unloading.

[0033] In this embodiment, the second reinforcing rod group 26 includes a third diagonal rod 27 inclined between the boom 21 and the main frame 23, a fourth diagonal rod 28 with one end on the boom 21 and the other end on the top of the main frame 23, and a plurality of fifth diagonal rods 29 between the fourth diagonal rod 28 and the boom 21.

[0034] In actual implementation, after the second reinforcing bar group is installed, when the weight of the aluminum rod is transferred to the boom 21 through the hook 22, the boom 21 will be subjected to a downward force. The third diagonal bar 27 will transfer part of the force to the main frame 23, while the fourth diagonal bar 28 will transfer the force to the top of the main frame 23. Multiple fifth diagonal bars 29 form multiple small triangular structures between the boom 21 and the main frame 23. These triangular structures can effectively disperse and transfer external forces, reduce the stress on individual components, and effectively increase the load capacity of the boom.

[0035] In this embodiment, a sliding assembly is also provided between the boom 21 and the hook. The sliding assembly includes a slider on the hook 22 and a slide rail provided along the length of the boom 21. The slider is matched and provided in the slide rail so that the hook 22 slides along the length of the boom 21.

[0036] This application provides an aluminum rod forklift lifting device, which includes a connecting base and a lifting assembly disposed on the connecting base. The connecting base includes a horizontal connecting rod, a vertical connecting rod disposed on the horizontal connecting rod, and a connecting groove disposed on the vertical connecting rod. Multiple vertical connecting rods are spaced apart along the length of the horizontal connecting rods. Forklift forks can be respectively matched and extended into the connecting grooves, allowing the lifting assembly to be detachably mounted on the forklift forks. By providing a set of connecting holes and fasteners between the connecting base and the forklift forks, a stable connection between the lifting device and the forklift can be achieved. By using the lifting device in conjunction with a forklift, aluminum rod loading and unloading operations can be performed directly using the forklift, eliminating the need for a gantry crane or other crane, significantly shortening logistics time and reducing transportation costs. Simultaneously, this lifting device has a simple structure, is easy to operate, has low implementation costs, is easy to promote and implement, and can effectively improve loading and unloading efficiency, reduce labor intensity, and enhance user experience.

[0037] The embodiments provided by this utility model have been described in detail above. Specific examples have been used to illustrate the principles and implementation methods of this utility model. The descriptions of the embodiments above are only for the purpose of helping to understand the method and core ideas of this utility model. It should be noted that those skilled in the art can make several improvements and modifications to this utility model without departing from the principles of this utility model, and these improvements and modifications also fall within the protection scope of the claims of this utility model.

Claims

1. An aluminum pole forklift spreader, characterized by, The assembly includes a connecting seat (1) and a lifting component (2) disposed on the connecting seat (1). The connecting seat (1) includes a horizontal connecting rod (10), a vertical connecting rod (11) disposed on the horizontal connecting rod (10), and a connecting groove (12) disposed on the vertical connecting rod (11). The vertical connecting rod (11) is provided with multiple vertical connecting rods at intervals along the length direction of the horizontal connecting rod (10). The forklift forks can be matched and extended into the connecting grooves (12) respectively, so that the lifting component (2) can be detachably disposed on the forklift forks.

2. An aluminum fork truck spreader as defined in claim 1 wherein, The connecting seat (1) also includes a connecting hole group (13) provided between the vertical connecting rod (11) and the forklift fork, and fasteners provided on the connecting hole group (13).

3. An aluminum fork truck spreader as defined in claim 2 wherein, The connecting hole group (13) is provided at intervals along the length direction of the vertical connecting rod (11).

4. An aluminum fork truck spreader as defined in claim 2 wherein, The connecting seat (1) further includes a first reinforcing rod group (14) disposed between the two vertical connecting rods (11). The first reinforcing rod group (14) includes a first inclined rod (15) disposed between the two vertical connecting rods (11) and a second inclined rod (16) disposed between the two vertical connecting rods (11). The first inclined rod (15) and the second inclined rod (16) are intersectingly disposed between the two vertical connecting rods (11).

5. An aluminum fork truck load lifting spreader as defined in claim 1 wherein, The hoisting assembly (2) includes a support frame (20) on the connecting seat (1), a boom (21) on the support frame (20), and a hook (22) on the end of the boom (21) away from the connecting seat (1).

6. An aluminum fork truck spreader as defined in claim 5 wherein, The support frame (20) includes a main frame body (23) disposed on the connecting seat (1), a first support rod (24) disposed on the main frame body (23), a second support rod (25) disposed between the boom (21) and the connecting seat (1), and a second reinforcing rod group (26) disposed between the boom (21) and the main frame body (23). The main frame body (23) and the first support rod (24) are arranged in an "A" shape, and the boom (21) is mounted on the first support rod (24).

7. An aluminum fork truck load lifting spreader as defined in claim 6 wherein, The second reinforcing rod group (26) includes a third diagonal rod (27) inclined between the boom (21) and the main frame (23), a fourth diagonal rod (28) with one end on the boom (21) and the other end on the top of the main frame (23), and a plurality of fifth diagonal rods (29) between the fourth diagonal rod (28) and the boom (21).

8. An aluminum fork truck load lifting spreader as defined in claim 5 wherein, It also includes a sliding assembly disposed between the boom (21) and the hook. The sliding assembly includes a slider disposed on the hook (22) and a slide rail disposed along the length direction of the boom (21). The slider is matched and disposed in the slide rail so that the hook (22) slides along the length direction of the boom (21).

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