Cross-workshop three-dimensional conveying system for aluminum profile production
By designing a three-dimensional cross-workshop conveying system, the problems of low conveying efficiency, high labor intensity and inability to achieve automated continuous production in the existing aluminum profile production are solved, and efficient and automated cross-workshop conveying of aluminum profiles is achieved.
Patent Information
- Application Number
- CN202411754058.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-02
- Publication Date
- 2025-02-14
AI Technical Summary
During the production process of existing aluminum profiles, the conveying efficiency between each process and between the workshop is low, the labor intensity is high, which can easily cause damage to the surface of the aluminum profile and cannot achieve automated continuous production.
A cross-workshop three-dimensional conveying system is designed, including upper, middle and lower conveying units, and a three-dimensional conveying control unit. Through the coordinated control of these units, the horizontal and vertical conveying of aluminum profiles across the workshop is realized, avoiding the defects of manual operation.
It improves the efficiency of aluminum profile conveying, reduces labor intensity, avoids surface damage of aluminum profiles, realizes automated continuous production, and meets higher production automation needs.
Smart Images

Figure CN119429468A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of aluminum profile production automation, and in particular provides a cross-workshop three-dimensional conveying system for aluminum profile production. Background Art
[0002] With the rapid development of the national economy, the demand for aluminum profiles has increased rapidly, which has put forward higher requirements for the production automation of aluminum profiles.
[0003] During the production process of aluminum profiles using the extrusion process, they go through multiple links, including heating of raw aluminum bars, extrusion molding by extrusion molding machines, shaping and cooling, and storage in warehouses. At present, the transportation of aluminum profiles between processes and between workshops is generally completed by manually driving motor vehicles or manually operating cranes on the ground. Not only is the transportation efficiency low, the ground space is large, the transportation process is labor-intensive, and the bundling and hoisting are prone to damage to the aluminum profile surface. In addition, the transportation between each process is carried out separately, and it is impossible to coordinate and control it in a unified manner, making it difficult to meet the needs of automated continuous production. Summary of the invention
[0004] Based on this, the present invention provides a cross-workshop three-dimensional conveying system for aluminum profile production, so as to realize coordinated and three-dimensional conveying of aluminum profiles across workshops, improve conveying efficiency, reduce labor intensity of the conveying process, and meet the needs of automated continuous production.
[0005] In order to achieve the above-mentioned purpose, the present invention provides a three-dimensional conveying system across workshops for aluminum profile production, comprising an upper conveying unit, a middle conveying unit, a lower conveying unit and a three-dimensional conveying control unit. The upper conveying unit comprises an upper transverse guide rail arranged on the upper part of the workshop, an upper crane is movably arranged on the upper transverse guide rail, and is configured to lift an aluminum profile holding frame on the floor of the workshop; the middle conveying unit is arranged below the upper conveying unit, comprising a middle transverse guide rail arranged across the laterally adjacent workshops, a middle conveying vehicle is movably arranged on the middle transverse guide rail, and is configured to receive the aluminum profile holding frame lifted by the upper crane and transport it across the workshop laterally; the lower conveying unit is arranged below the middle conveying unit, comprising a lower longitudinal guide rail arranged across the longitudinally adjacent workshops, a lower conveying vehicle is movably arranged on the lower longitudinal guide rail, and is configured to receive the aluminum profile holding frame lifted by the upper crane and transport it across the workshop longitudinally; and the three-dimensional conveying control unit comprises a central conveying controller connected to the upper conveying unit, the middle conveying unit and the lower conveying unit.
[0006] Furthermore, the upper transverse guide rail includes a left upper guide rail and a right upper guide rail arranged in longitudinally adjacent workshops, a first upper trolley is movably arranged on the left upper guide rail, and a second upper trolley is movably arranged on the right upper guide rail. The first upper trolley and the second upper trolley are used to respectively carry out the hanging and transverse transportation of aluminum profiles in different workshops.
[0007] Furthermore, the longitudinally adjacent workshops are also provided with a first upper longitudinal guide rail and a second upper longitudinal guide rail, the left upper guide rail is movably arranged on the first upper longitudinal guide rail, and the right upper guide rail is movably arranged on the second upper longitudinal guide rail. The aluminum profile frame can be hung at different horizontal and vertical positions on the floor of the hanging workshop, and can also be placed at different positions.
[0008] Furthermore, the three-dimensional conveying control unit also includes a frame position detector for detecting the placement position of the aluminum profile frame on the workshop floor, and the central conveying controller is configured to receive and control the first upper crane and / or the second upper crane to move above the aluminum profile frame according to the detected aluminum profile frame position information to lift the aluminum profile frame. The three-dimensional conveying control unit can quickly identify the aluminum profile frame through the frame position monitor so as to accurately lift the aluminum profile frame.
[0009] Furthermore, the front workshop adjacent in the transverse direction is provided with a fixed top transverse guide rail, on which a top transverse crane is movably provided. Furthermore, the top of the workshop adjacent in the longitudinal direction is provided with a top longitudinal guide rail across the top, which is located above the top transverse guide rail, on which a top longitudinal crane is movably provided, and the lateral position of the hoist connected to the top longitudinal crane can be adjusted. The operator can operate as needed to lift the workpiece through the top longitudinal crane to achieve lateral and longitudinal movement, which serves as a functional supplement to the above-mentioned conveying units.
[0010] Furthermore, the lower conveying unit further comprises a longitudinal conveying trough connecting the longitudinally adjacent workshops, the longitudinal conveying trough passes under the middle transverse guide rail, the lower longitudinal guide rail is arranged at the bottom of the longitudinal conveying trough, and the lower conveying vehicle runs in the longitudinal conveying trough. The longitudinal conveying trough is arranged underground, which can save the floor space of the workshop and avoid mutual interference between the conveying process and the middle conveying vehicle of the middle conveying unit, which is conducive to the orderly three-dimensional conveying process.
[0011] Furthermore, the three-dimensional conveying control unit also includes a lower position detector for detecting the position of the lower conveying vehicle, and the central conveying controller is configured to receive and control the upper crane to adjust its position to just above the lower conveying vehicle according to the position information of the lower conveying vehicle, so as to release the aluminum profile holding frame hung on the lower conveying vehicle. The lower position detector is used to accurately detect the precise position of the lower conveying vehicle, and the central conveying controller receives the position signal of the lower conveying vehicle to control the actions of the first upper crane and the second upper crane, thereby realizing the conveying transfer of the aluminum profile holding frame between the upper conveying unit and the lower conveying unit, and realizing coordinated and continuous conveying.
[0012] Furthermore, the three-dimensional conveying control unit also includes a middle position detector for detecting the position of the middle conveying vehicle, and the central conveying controller is configured to receive and control the upper crane to adjust its position to just above the middle conveying vehicle according to the position information of the middle conveying vehicle, so as to release the aluminum profile holding frame hung on the middle conveying vehicle. The central conveying controller receives the position signal of the middle conveying vehicle, thereby controlling the actions of the first upper crane and the second upper crane, realizing the conveying transfer of the aluminum profile holding frame between the upper conveying unit and the middle conveying unit, and realizing coordinated and continuous conveying.
[0013] Furthermore, the three-dimensional conveying control unit also includes a holding frame position sensor disposed on the aluminum profile holding frame, and the central conveying controller is connected to the holding frame position sensor signals, and is configured to receive and control the upper traveling vehicle, the middle conveying vehicle, and the lower conveying vehicle according to the holding frame position obtained by the holding frame position sensor. The holding frame position sensor sends a signal to the three-dimensional conveying control unit by wireless transmission, and the three-dimensional conveying control unit uses this to perform unified planning of the aluminum profile holding frame conveying control process, thereby improving the overall conveying efficiency of the production process.
[0014] Compared with the aluminum profile conveying method in the prior art, the technical advantages of the cross-workshop three-dimensional conveying system for aluminum profile production provided are at least reflected in: 1. Arrange the upper conveying unit, the middle conveying unit and the lower conveying unit at different heights in the aluminum profile production workshop, coordinate and control each conveying unit through the three-dimensional conveying control unit to carry out the automated conveying of the aluminum profile production structure: the upper crane of the upper conveying unit lifts the aluminum profile frame on the workshop floor, the middle conveying vehicle of the middle conveying unit receives the aluminum profile frame lifted by the upper crane and transports it horizontally across the workshop, and the lower conveying vehicle of the lower conveying unit receives the aluminum profile frame lifted by the upper crane and transports it vertically across the workshop. Each conveying unit works in coordination to meet the needs of aluminum profile transportation across workshops, save layout space, and effectively improve transportation efficiency; 2. The three-dimensional conveying control unit coordinates and controls the conveying units. Each conveying unit can be used simultaneously to realize the coordinated conveying of aluminum profiles between workshops horizontally and vertically, or each conveying unit can be used separately to convey aluminum profiles within each workshop. The conveying process can be flexibly adjusted according to the needs of the aluminum profile production process; 3. The aluminum profile holding frame is used in conjunction with the upper crane of the upper conveying unit, the middle conveying vehicle of the middle conveying unit and the lower conveying vehicle of the lower conveying unit to realize the rapid unloading and transfer of batches of aluminum profiles between different conveying units. It is not only convenient for collecting and placing batches of aluminum profiles, but also avoids surface damage caused by bundling during transportation, and improves the transportation and transfer speed between different processes in the transportation process. BRIEF DESCRIPTION OF THE DRAWINGS
[0015] In order to more clearly illustrate the technical solutions of the embodiments of the present disclosure, the drawings required for use in the embodiments of the present disclosure will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present disclosure. For ordinary technicians in this field, other drawings can be obtained based on the drawings without creative work.
[0016] Figure 1 It is a three-dimensional view of an embodiment of a three-dimensional conveying system across workshops for aluminum profile production provided; Figure 2 It is a top view of an embodiment of a three-dimensional conveying system across workshops for producing aluminum profiles; Figure 3 It is a front view of an embodiment of a three-dimensional conveying system across workshops for producing aluminum profiles provided; Figure 4 The present invention is a side view of an embodiment of a three-dimensional conveying system across workshops for producing aluminum profiles.
[0017] Description of the accompanying drawings: 11-left upper guide rail, 12-first upper longitudinal guide rail, 13-first upper carriage, 14-right upper guide rail, 15-second upper longitudinal guide rail, 16-second upper carriage; 21-middle transverse guide rail, 22-middle transport vehicle; 31-longitudinal conveying trough, 32-lower longitudinal guide rail, 33-lower conveying vehicle; 41-top transverse guide rail, 42-top transverse carriage; 51-top longitudinal guide rail, 52-top longitudinal crane. DETAILED DESCRIPTION
[0018] The embodiments of the present disclosure are further described in detail below in conjunction with the accompanying drawings and examples. The detailed descriptions and drawings of the following embodiments are used to exemplarily illustrate the principles of the present disclosure, but cannot be used to limit the scope of the present disclosure, that is, the present disclosure is not limited to the described embodiments. Some embodiments of the present invention are described in detail below in conjunction with the accompanying drawings. The features in the following embodiments can be combined with each other without conflict.
[0019] like Figures 1 to 4 As shown, the present invention provides a three-dimensional conveying system across workshops for aluminum profile production, including an upper conveying unit, a middle conveying unit, a lower conveying unit and a three-dimensional conveying control unit. The upper conveying unit includes an upper transverse guide rail arranged on the upper part of the workshop, and the upper vehicle is movably arranged on the upper transverse guide rail, and is configured to lift the aluminum profile holding frame on the workshop floor; the middle conveying unit is arranged below the upper conveying unit, including a middle transverse guide rail 21 arranged across the laterally adjacent workshops, and the middle conveying vehicle 22 is movably arranged on the middle transverse guide rail 21, and is configured to receive the aluminum profile holding frame lifted by the upper vehicle and transport it across the workshop laterally; the lower conveying unit is arranged below the middle conveying unit, including a lower longitudinal guide rail 32 arranged across the longitudinally adjacent workshops, and the lower conveying vehicle 33 is movably arranged on the lower longitudinal guide rail 32, and is configured to receive the aluminum profile holding frame lifted by the upper vehicle and transport it across the workshop longitudinally; and the three-dimensional conveying control unit includes a central conveying controller connected to the upper conveying unit, the middle conveying unit and the lower conveying unit. During the implementation process, the intermediate conveying controller can be an industrial computer, a microcontroller and a PLC programmable controller.
[0020] The working process of the cross-workshop three-dimensional conveying system for aluminum profile production provided is as follows: the three-dimensional conveying control unit coordinates and controls each conveying unit to perform automated conveying of aluminum profile production structures; the first upper crane 13 and the second upper crane 16 of the upper conveying unit lift the aluminum profile holding frame on the workshop floor; the middle conveying vehicle 22 of the middle conveying unit receives the aluminum profile holding frame lifted by the first upper crane 13 and the second upper crane 16 and transports it horizontally across the workshop; the lower conveying vehicle 33 of the lower conveying unit receives the aluminum profile holding frame lifted by the upper crane and transports it vertically across the workshop.
[0021] The three-dimensional conveying system across workshops based on aluminum profile production is uniformly coordinated and controlled by the three-dimensional conveying control unit. Each conveying unit works in coordination to meet the needs of aluminum profile cross-workshop transportation, save layout space, and effectively improve the transportation efficiency. Each conveying unit can be used simultaneously to realize the coordinated transportation of aluminum profiles across workshops horizontally and vertically, or each conveying unit can be used separately to transport aluminum profiles within each workshop. The conveying process can be flexibly adjusted according to the needs of the aluminum profile production process.
[0022] During implementation, the upper transverse guide rail includes a left upper guide rail 11 and a right upper guide rail 14 provided in longitudinally adjacent workshops, a first upper trolley 13 is movably provided on the left upper guide rail 11, and a second upper trolley 16 is movably provided on the right upper guide rail 14. The first upper trolley 13 and the second upper trolley 16 are used to respectively carry out the hanging and transverse transportation of aluminum profiles in different workshops.
[0023] Furthermore, the longitudinally adjacent workshops are also provided with a first upper longitudinal guide rail 12 and a second upper longitudinal guide rail 15, the left upper guide rail 11 is movably set on the first upper longitudinal guide rail 12, and the right upper guide rail 14 is movably set on the second upper longitudinal guide rail 15, respectively realizing the longitudinal movement of the first upper crane 13 and the second upper crane 16, thereby being able to meet the needs of hanging aluminum material frames at different horizontal and vertical positions on the floor of the hanging workshop, and also being able to place them at different guide positions.
[0024] Furthermore, the three-dimensional conveying control unit also includes a holding frame position detector for detecting the placement position of the aluminum profile holding frame on the workshop floor. The central conveying controller is configured to receive and control the first upper crane 13 and / or the second upper crane 16 to move to the top of the aluminum profile holding frame according to the detected aluminum profile holding frame position information to lift the aluminum profile holding frame. The three-dimensional conveying control unit can quickly identify the aluminum profile holding frame through the holding frame position monitor so as to accurately hang the aluminum profile holding frame. During implementation, the holding frame position detector can be a video camera, a far-infrared camera, etc. fixedly installed in the workshop.
[0025] The use of an aluminum profile holding frame for holding aluminum profiles in batches not only facilitates the collection and holding of aluminum profiles in batches, but also avoids surface damage caused by bundling during transportation. The first upper crane 13 and the second upper crane 16 of the upper conveying unit, the middle conveying vehicle of the middle conveying unit, and the lower conveying vehicle of the lower conveying unit are used in conjunction with the aluminum profile holding frame to quickly realize the rapid unhooking and transfer between different conveying units, thereby improving the conveying and transfer speed between different processes in the conveying process.
[0026] During the implementation, the front workshop adjacent to each other laterally is provided with a fixed top transverse guide rail 41, on which a top transverse crane 42 is movably provided. The top transverse crane 42 is used to transport the aluminum profile holding frame laterally in the workshop, and is used in conjunction with the first upper crane 13 and the second upper crane 16 to improve the transportation efficiency.
[0027] During the implementation, a top longitudinal guide rail 51 is arranged across the top of the longitudinally adjacent workshops, and the top longitudinal guide rail 51 is located above the top transverse guide rail 41. A top longitudinal crane 52 is movably arranged on the top longitudinal guide rail 51, and the transverse position of the hoist connected to the top longitudinal crane 52 can be adjusted. The operator can operate as needed to lift the workpiece through the top longitudinal crane 52 to achieve transverse and longitudinal movement, which serves as a functional supplement to the above-mentioned conveying units.
[0028] In some embodiments, the lower conveying unit further includes a longitudinal conveying trough 31 connecting longitudinally adjacent workshops, the longitudinal conveying trough 31 passes under the middle transverse guide rail 21, the lower longitudinal guide rail 32 is arranged at the bottom of the longitudinal conveying trough 31, and the lower conveying vehicle 33 runs in the longitudinal conveying trough 31. Placing the longitudinal conveying trough 31 underground can save the floor space of the workshop, and avoid mutual interference between the conveying process and the middle conveying vehicle of the middle conveying unit, which is conducive to the orderly three-dimensional conveying process.
[0029] In some embodiments, the three-dimensional transport control unit further includes a lower position detector for detecting the position of the lower transport vehicle 33, and the central transport controller is configured to receive and control the upper crane to adjust its position to just above the lower transport vehicle 33 according to the position information of the lower transport vehicle 33, so as to release the aluminum profile holding frame hung on the lower transport vehicle 33. In the implementation process, the lower position detector can be an inductive displacement sensor, a travel switch, a magnetostrictive displacement sensor, etc., which is used to accurately detect the precise position of the lower transport vehicle 33. The central transport controller receives the position signal of the lower transport vehicle 33, thereby controlling the movement of the first upper crane 13 and the second upper crane 16, realizing the transfer of the aluminum profile holding frame between the upper transport unit and the lower transport unit, and realizing coordinated and continuous transport.
[0030] In some embodiments, the three-dimensional conveying control unit further includes a middle position detector for detecting the position of the middle conveying vehicle 22, and the central conveying controller is configured to receive and control the upper crane to adjust its position to just above the middle conveying vehicle 22 according to the position information of the middle conveying vehicle 22, so as to release the aluminum profile holding frame hung to the middle conveying vehicle 22. During implementation, the middle position detector can be an inductive displacement sensor, a travel switch, a magnetostrictive displacement sensor, etc., which is used to accurately detect the precise position of the middle conveying vehicle 22. The central conveying controller receives the position signal of the middle conveying vehicle 22, thereby controlling the movement of the first upper crane 13 and the second upper crane 16, realizing the conveying transfer of the aluminum profile holding frame between the upper conveying unit and the middle conveying unit, and realizing coordinated and continuous conveying.
[0031] In some embodiments, the three-dimensional conveying control unit further includes a holding frame position sensor disposed on the aluminum profile holding frame, and the central conveying controller is connected to the signals of each holding frame position sensor, and is configured to receive and control the upper traveling vehicle, the middle conveying vehicle 22, and the lower conveying vehicle 33 according to the holding frame position obtained by the holding frame position sensor. During implementation, the holding frame position sensor may include a component with a GPS positioning function, or a local coordinate positioning component, and send a signal to the three-dimensional conveying control unit by wireless transmission. The three-dimensional conveying control unit uses this to perform unified planning of the conveying control process of the aluminum profile holding frame, thereby improving the overall conveying efficiency of the production process.
[0032] Although the present disclosure has been described with reference to preferred embodiments, various modifications may be made thereto and parts thereof may be replaced with equivalents without departing from the scope of the present disclosure. In particular, the various technical features mentioned in the various embodiments may be combined in any manner as long as there is no structural conflict. The present disclosure is not limited to the specific embodiments disclosed herein, but includes all technical solutions falling within the scope of the claims.
Claims
1. A three-dimensional conveying system across workshops for the production of aluminum profiles, characterized in that: include: The upper conveying unit includes an upper transverse guide rail arranged on the upper part of the workshop, and the upper crane is movably arranged on the upper transverse guide rail and is configured to lift the aluminum profile containing frame on the workshop floor; The middle conveying unit is arranged below the upper conveying unit and comprises a middle transverse guide rail (21) arranged across the laterally adjacent workshops. The middle conveying vehicle (22) is movably arranged on the middle transverse guide rail (21) and is configured to receive the aluminum profile holding frame lifted by the upper crane and convey it laterally across the workshops. The lower conveying unit is arranged below the middle conveying unit, and comprises a lower longitudinal guide rail (32) arranged longitudinally across the longitudinally adjacent workshops, and the lower conveying vehicle (33) is movably arranged on the lower longitudinal guide rail (32) and is configured to receive the aluminum profile holding frame lifted by the upper crane and convey it longitudinally across the workshops; and The three-dimensional conveying control unit comprises a central conveying controller which is control-connected with the upper conveying unit, the middle conveying unit and the lower conveying unit.
2. The cross-workshop three-dimensional conveying system for aluminum profile production according to claim 1 is characterized in that: The upper transverse guide rail comprises a left upper guide rail (11) and a right upper guide rail (14) arranged in longitudinally adjacent workshops, a first upper trolley (13) being movably arranged on the left upper guide rail (11), and a second upper trolley (16) being movably arranged on the right upper guide rail (14).
3. The cross-workshop three-dimensional conveying system for aluminum profile production according to claim 2 is characterized in that: The longitudinally adjacent workshops are also provided with a first upper longitudinal guide rail (12) and a second upper longitudinal guide rail (15), wherein the left upper guide rail (11) is movably arranged on the first upper longitudinal guide rail (12), and the right upper guide rail (14) is movably arranged on the second upper longitudinal guide rail (15).
4. The cross-workshop three-dimensional conveying system for aluminum profile production according to claim 2 is characterized in that: The three-dimensional conveying control unit also includes a frame position detector for detecting the placement position of the aluminum profile holding frame on the workshop floor, and the central conveying controller is configured to receive and control the first upper crane (13) and / or the second upper crane (16) to move to the top of the aluminum profile holding frame according to the detected aluminum profile holding frame position information so as to lift the aluminum profile holding frame.
5. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 1 is characterized in that: A top transverse guide rail (41) with a fixed position is provided in the transversely adjacent front workshop, and a top transverse carriage (42) is movably provided on the top transverse guide rail (41).
6. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 5 is characterized in that: A top longitudinal guide rail (51) is arranged across the top of the longitudinally adjacent workshops. The top longitudinal guide rail (51) is located above the top transverse guide rail (41). A top longitudinal crane (52) is movably arranged on the top longitudinal guide rail (51). The transverse position of the hanger connected to the top longitudinal crane (52) can be adjusted.
7. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 1 is characterized in that: The lower conveying unit further comprises a longitudinal conveying trough (31) connecting longitudinally adjacent workshops, the longitudinal conveying trough (31) passing under the middle transverse guide rail (21), the lower longitudinal guide rail (32) being arranged at the bottom of the longitudinal conveying trough (31), and the lower conveying vehicle (33) running in the longitudinal conveying trough (31).
8. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 1 or 7, characterized in that: The three-dimensional transport control unit also includes a lower position detector for detecting the position of the lower transport vehicle (33), and the central transport controller is configured to receive and control the upper crane to adjust its position to just above the lower transport vehicle (33) based on the position information of the lower transport vehicle (33) so as to release the hung aluminum profile holding frame to the lower transport vehicle (33).
9. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 1 is characterized in that: The three-dimensional transport control unit also includes a middle position detector for detecting the position of the middle transport vehicle (22), and the central transport controller is configured to receive and control the upper crane to adjust its position to just above the middle transport vehicle (22) based on the position information of the middle transport vehicle (22) so as to release the hung aluminum profile holding frame to the middle transport vehicle (22).
10. The inter-workshop three-dimensional conveying system for aluminum profile production according to claim 1 is characterized in that: The three-dimensional conveying control unit also includes a holding frame position sensor arranged on the aluminum profile holding frame. The central conveying controller is connected to the holding frame position sensor signals and is configured to receive and control the movement of the upper traveling vehicle, the middle conveying vehicle (22) and the lower conveying vehicle (33) according to the holding frame position obtained by the holding frame position sensor.