Aluminum profile cutting and drilling integrated device

Abstract

The application discloses an aluminum profile cutting and drilling integrated device and relates to the technical field of aluminum profile machining. The main body is provided with a machining area on one side. The driving part comprises a mechanical arm, a power assembly and a linkage assembly. The power assembly is used for controlling the lifting of the transfer part. The linkage assembly derives its kinetic energy from the power assembly. The transfer part comprises a clamping assembly, a measuring assembly and a delivery assembly. The clamping assembly is used for fixing work during aluminum profile machining. The clamping assembly cooperates with the equipment in the machining area to cut and punch the aluminum profile. The linkage assembly and the clamping assembly realize feeding, discharging and fixed clamping of the aluminum profile. The measuring assembly improves the accuracy of the measured value during aluminum profile delivery. The delivery assembly is mainly used for delivering the aluminum profile and measuring the delivery length of the aluminum profile in cooperation with the measuring assembly.

Description

Technical Field

[0001] This invention relates to the field of aluminum profile processing technology, specifically to an integrated device for cutting and drilling aluminum profiles. Background Technology

[0002] Currently, most aluminum profile cutting equipment is a semi-automatic double-head saw. It requires manual lifting and feeding of the aluminum profile. The operator holds the profile in place and presses the start button, and the machine performs fixed-length sawing. After sawing, the operator stacks and unloads the profiles, repeating this process to complete batch cutting. The subsequent drilling process is mostly completed by a separate CNC machining center, requiring manual reloading and positioning of the cut profiles.

[0003] Semi-automatic double-head sawing suffers from inconsistent dimensional accuracy and excessive material waste, resulting in significant aluminum profile waste. Furthermore, the multiple independent processes between the sawing operations easily cause scratches on the finished product. Because semi-automatic double-head sawing relies heavily on manual material handling, the accuracy of manual feeding is greatly affected by labor fatigue, making it impossible to guarantee consistent cutting width and leading to substantial material waste. Simultaneously, since cutting and drilling are performed independently, multiple manual loading and unloading actions between these processes cause scratches on the profiles during transport, increasing the scrap rate. Excessive handling time also results in wasted resources and waiting time. Summary of the Invention

[0004] The purpose of this invention is to provide an integrated device for cutting and drilling aluminum profiles to solve the problems mentioned in the background art.

[0005] To solve the above-mentioned technical problems, the present invention provides the following technical solution: an integrated device for cutting and drilling aluminum profiles, comprising a main body, a processing area provided on one side of the main body, the main body including a driving component and a transfer component, the driving component including a robotic arm, a power component and a linkage component, the power component being used to control the lifting and lowering of the transfer component, the kinetic energy of the linkage component being derived from the power component, and the linkage component being used for the feeding and discharging of aluminum profiles;

[0006] The transfer component includes a clamping assembly, a measuring assembly, and a delivery assembly. The clamping assembly is used to fix the aluminum profile during processing. The clamping assembly works with the equipment in the processing area to cut and drill the aluminum profile. The measuring assembly is used to measure the delivery length of the aluminum profile. The delivery assembly is mainly used for clamping and linearly conveying the aluminum profile.

[0007] Furthermore, the delivery component includes a drive shaft installed inside the main body. The drive shaft is composed of a limiting post and a toothed post, which are arranged vertically. The outer wall of the toothed post is provided with several fins. A contact is installed above the fins and is connected to a measuring component. A control lever controls the delivery component to descend until the outer wall of the aluminum profile is in contact with the outer wall of the fins. The robotic arm controls the delivery component to continue descending until the aluminum profile and fins are fully engaged. The fins change from an inclined state to a parallel state relative to the drive shaft, and the outer wall of the fins is parallel to the outer wall of the aluminum profile. Before the fins deflect, the clamping cross section formed between the fins of the left and right delivery components is an isosceles trapezoid. After the fins deflect, the clamping cross section formed between the fins of the left and right delivery components is a rectangle, and the width of the rectangle is equal to the width of the aluminum profile.

[0008] Furthermore, the measuring component includes a side plate mounted above the contact point. A feedback plate is mounted on the lower end of the side plate. The feedback plate has a right-angled trapezoidal cross-section, and its width gradually decreases at the end away from the limiting post. The side plate is connected to the clamping component. The drive shaft causes the fins to move in a circular motion around the drive shaft. At this time, the contact point at the upper end of the fin moves synchronously with the fin. The movement space of the contact point and the position of the feedback plate do not overlap. After the fin completes deflection under the pressure of the aluminum profile, the movement space of the contact point and the position of the feedback plate overlap. The fin drives the aluminum profile to move. During this process, the contacts at the upper end of the fins come into contact with the feedback plate. After the two contacts, the main body receives an electrical signal from the feedback plate. Two adjacent electrical signals record the movement distance of the aluminum profile. The movement distance of the aluminum profile is the length of the arc formed by two adjacent fins. The width of the end of the feedback plate away from the limiting post gradually decreases. When the feedback plate comes into contact with the fin during deflection, the feedback plate guides the fin through the inclined surface of the outer wall, pushing the fin to deflect a short distance, so as to reduce the direct collision between the feedback plate and the fin during contact and improve the service life of the feedback plate. The contacts are made of elastic metal.

[0009] Furthermore, the clamping assembly includes a limiting plate installed inside the side plate. The limiting plate has a triangular cross-section and is connected to the side plate via a rotating shaft. The rotating shaft is eccentrically installed on one side of the limiting plate. A groove is formed inside the side plate. A drive rod in the processing area pushes the aluminum profile to shift, and the aluminum profile moves from the delivery area between the delivery assemblies to the clamping area between the clamping assemblies. The height of the aluminum profile is greater than the height of the side plate. Since the limiting plate is connected to the side plate via a rotating shaft, and the rotating shaft is eccentrically installed on one side of the limiting plate, on the side of the limiting plate away from the aluminum profile, the pressure of the limiting plate on the aluminum profile continuously increases and the contact area increases synchronously during the contact process between the aluminum profile and the limiting plate under pressure. When the aluminum profile contacts the upper body under the action of the drive rod...

[0010] Furthermore, the linkage component includes an oil reservoir rod installed above the main body, with a telescopic rod located in the middle of the oil reservoir rod. The oil reservoir rod and the telescopic rod are connected by a pipe. A push plate is installed below the telescopic rod, which penetrates the main body. The upper ends of both the oil reservoir rod and the telescopic rod are connected to the main board, and the upper end of the main board is connected to the robotic arm. The horizontal cross-sectional area of ​​the inner wall of the oil reservoir rod is larger than that of the inner wall of the telescopic rod. Before the aluminum profile begins processing, i.e., when the main body is positioned above the aluminum profile under the control of the robotic arm, the control rod controls the main body and the transfer component to descend until the delivery component is fully engaged with the aluminum profile. In addition to being connected to the main body and the main board via a control rod, the two ends of the oil reservoir rod are also connected to the main body and the main board respectively. Under the action of the control rod, the oil reservoir rod extends synchronously, and the oil storage space inside the oil reservoir rod increases synchronously, causing the telescopic rod to retract so that the internal hydraulic oil can move into the oil reservoir rod. After the aluminum profile is processed in the processing area, the control rod retracts, causing the telescopic rod to extend. Since the horizontal cross-sectional area of ​​the inner wall of the oil reservoir rod is larger than the horizontal cross-sectional area of ​​the inner wall of the telescopic rod, the extension length of the telescopic rod is greater than the retraction length of the control rod. As a result, the telescopic rod pushes the aluminum profile away from the action area of ​​the transfer component through the push plate, and then the aluminum profile falls into the finished product area.

[0011] Furthermore, the power assembly includes a control rod installed between the main body and the main board. The control rod is used to change the vertical distance between the main body and the main board. In addition to being connected to the main body and the main board through the control rod, the two ends of the oil reservoir rod are also connected to the main body and the main board respectively. The oil reservoir rod extends synchronously under the action of the control rod, and the oil storage space inside the oil reservoir rod increases synchronously, so that the telescopic rod retracts to facilitate the movement of hydraulic oil into the oil reservoir rod. After the aluminum profile is processed in the processing area, the control rod retracts, so that the telescopic rod begins to extend.

[0012] Furthermore, two sets of the transfer components are arranged below the main board. Each set of transfer components contains two sets of measuring components and delivery components. The number of fins inside the two sets of delivery components differs by one or two. The two sets of transfer components are located on both sides of the push plate. There are a total of four sets of delivery components below the two sets of transfer components. The four sets of delivery components work together to clamp the aluminum profile.

[0013] Furthermore, the toothed column is internally provided with a number of fins, the number of which is odd. The outer wall of the fins is provided with rubber pads, and the vertical cross-section of the fins is a right trapezoid. The hypotenuse of the right trapezoid is in contact with the limiting post. The number of fins provided inside the delivery components on both sides of the aluminum profile is not the same, and the number of fins is odd. After two adjacent contacts and feedback plates collide, there is also a difference between the distances recorded by the measuring components on both sides of the aluminum profile in a single instance. Since the delivery components on both sides move synchronously, there is a small difference in the values ​​measured by the four sets of measuring components on both sides of the aluminum profile. The difference is that the arc length of the group with fewer fins is reduced by twice the arc length of the group with more fins.

[0014] Compared with the prior art, the beneficial effects achieved by the present invention are:

[0015] 1. This integrated aluminum profile cutting and drilling device, through the setting of linkage components and clamping components, the clamping components mainly function to fix and clamp the aluminum profile during the processing of the aluminum profile in the processing area, so as to prevent the aluminum profile from shaking during processing and thus reducing the processing accuracy. The linkage components mainly function to realize the feeding and discharging of the aluminum profile with the cooperation of the power components.

[0016] 2. This integrated aluminum profile cutting and drilling device, through the setting of the measuring component, the main function of the measuring component is to work in conjunction with the delivery component. During the delivery of the aluminum profile, the delivery component realizes the real-time detection of the delivery length of the aluminum profile by the electrical signal generated by the relative contact between the feedback plate and the contact point. The special design of the feedback plate reduces the direct collision between the feedback plate and the fins during contact, and improves the service life of the feedback plate.

[0017] 3. This integrated aluminum profile cutting and drilling device, through the setting of the delivery component, is mainly used to deliver aluminum profiles to cooperate with the internal equipment of the processing area to process the aluminum profiles. The delivery component and the measuring component work together to measure the delivery length of the aluminum profile. Secondly, the special design of the outer surface structure of the fins enables the fins to contact the aluminum profile in an open shape before deflection. After deflection, the fins actively clamp the aluminum profile, and the clamping area increases synchronously. The outer diameter of the toothed column is the same as the outer diameter of the fin after deflection, which improves the stability of the delivery component in delivering the aluminum profile and the stability of the drive shaft in driving the fins. Furthermore, the movement area of ​​the fins after deflection coincides with the area where the feedback plate is located, thereby improving the accuracy of the measurement values ​​provided by the measuring component. Attached Figure Description

[0018] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0019] Figure 1 This is the front view of the present invention;

[0020] Figure 2 This is a bottom view of the present invention;

[0021] Figure 3 This is the main view of the delivery component of the present invention;

[0022] Figure 4 This is a front view of the delivery component of the present invention in a clamping state;

[0023] Figure 5 This is the invention Figure 4 Enlarged structural diagram at point A in the middle;

[0024] Figure 6 This is a bottom view of the measuring component of the present invention;

[0025] Figure 7 This is a bottom view of the delivery component of the present invention;

[0026] Figure 8 This is a schematic diagram of the connection structure between the oil reservoir rod and the telescopic rod of the present invention.

[0027] In the diagram: 1. Drive component; 2. Transfer component; 3. Power component; 301. Control lever; 4. Linkage component; 401. Oil reservoir rod; 402. Telescopic rod; 5. Clamping component; 501. Limiting plate; 6. Measuring component; 601. Side plate; 602. Feedback plate; 7. Delivery component; 701. Drive shaft; 702. Fin; 703. Contact; 8. Main body; 9. Main board. Detailed Implementation

[0028] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0029] Please see Figures 1-8 The present invention provides a technical solution: an integrated device for cutting and drilling aluminum profiles, including a main body 8, a processing area is provided on one side of the main body 8, the main body 8 includes a driving component 1 and a transfer component 2, the driving component 1 includes a robotic arm, a power component 3 and a linkage component 4, the power component 3 is used to control the lifting and lowering of the transfer component 2, the kinetic energy of the linkage component 4 comes from the power component 3, and the linkage component 4 is used for the feeding and discharging of aluminum profiles.

[0030] The transfer component 2 includes a clamping assembly 5, a measuring assembly 6, and a delivery assembly 7. The clamping assembly 5 is used to fix the aluminum profile during processing. The clamping assembly 5 works with the equipment in the processing area to cut and drill the aluminum profile. The measuring assembly 6 is used to measure the delivery length of the aluminum profile. The delivery assembly 7 is mainly used for clamping the aluminum profile and for linear conveying.

[0031] The delivery component 7 includes a drive shaft 701 installed inside the main body 8. The drive shaft 701 is composed of a limiting post and a toothed post, which are arranged vertically. Several fins 702 are provided on the outer wall of the toothed post. Contacts 703 are installed above the fins 702 and are connected to the measuring component 6. The delivery component 7 is mainly used to deliver aluminum profiles to cooperate with the equipment inside the processing area for processing the aluminum profiles. The delivery component 7 and the measuring component 6 cooperate to measure the delivery length of the aluminum profile. The fins 702... The special design of the outer surface structure enables the fin 702 to contact the aluminum profile in an open form before deflection, and the fin 702 to actively clamp the aluminum profile after deflection, with the clamping area increasing synchronously. The outer diameter of the toothed column is the same as the outer diameter of the fin 702 after deflection, which improves the stability of the delivery component 7 in delivering the aluminum profile and the stability of the drive shaft 701 in driving the fin 702. Furthermore, the movement area of ​​the fin 702 after deflection coincides with the area where the feedback plate 602 is located, thereby improving the accuracy of the measurement values ​​provided by the measurement component 6.

[0032] The measuring component 6 includes a side plate 601 mounted above the contact 703. A feedback plate 602 is mounted on the lower end of the side plate 601. The cross-section of the feedback plate 602 is a right trapezoid. The width of the feedback plate 602 gradually decreases at the end away from the limiting post. The side plate 601 is connected to the clamping component 5. The main function of the measuring component 6 is to work in conjunction with the delivery component 7. During the delivery of the aluminum profile, the delivery component 7 uses the electrical signal generated by the relative contact between the feedback plate 602 and the contact 703 to realize the real-time detection of the delivery length of the aluminum profile by the measuring component 6. The special design of the feedback plate 602 reduces the direct collision between the feedback plate 602 and the fin 702 during contact, thereby improving the service life of the feedback plate 602.

[0033] The clamping assembly 5 includes a limiting plate 501 installed inside the side plate 601. The limiting plate 501 has a triangular cross-section. The limiting plate 501 is connected to the side plate 601 via a rotating shaft. The rotating shaft is eccentrically installed on one side inside the limiting plate 501. A groove is provided inside the side plate 601.

[0034] The linkage component 4 includes an oil storage rod 401 installed above the main body 8. A telescopic rod 402 is provided in the middle of the oil storage rod 401. The oil storage rod 401 and the telescopic rod 402 are connected by a pipe. A push plate is installed below the telescopic rod 402. The telescopic rod 402 passes through the main body 8. The upper ends of both the oil storage rod 401 and the telescopic rod 402 are connected to the main board 9. The upper end of the main board 9 is connected to the robotic arm. The horizontal cross-sectional area of ​​the inner wall of the oil storage rod 401 is larger than that of the horizontal cross-sectional area of ​​the inner wall of the telescopic rod 402. The clamping component 5 mainly functions to fix and clamp the aluminum profile during the processing of the aluminum profile by the processing equipment in the processing area, so as to avoid the aluminum profile shaking during processing, which would reduce the processing accuracy. The linkage component 4 mainly functions to realize the feeding and discharging of the aluminum profile with the cooperation of the power component 3.

[0035] The power assembly 3 includes a control lever 301 installed between the main body 8 and the main board 9. The control lever 301 is used to change the vertical distance between the main body 8 and the main board 9.

[0036] Below the main board 9 are two sets of transfer components 2. Each set of transfer components 2 contains two sets of measuring components 6 and delivery components 7. The difference in the number of fins 702 inside the two sets of delivery components 7 is one or two.

[0037] The toothed column is equipped with a number of fins 702 inside, the number of fins 702 is odd, the outer wall of the fins 702 is provided with rubber pads, the vertical cross section of the fins 702 is a right trapezoid, and the hypotenuse of the right trapezoid is in contact with the limiting column.

[0038] The working principle of this invention is as follows: A double-headed saw and an aluminum profile drilling device are installed on both sides of the main body 8. The robotic arm controls the transfer component 2 to move to the aluminum profile storage area. The delivery component 7 inside the transfer component 2 clamps a single aluminum profile. The robotic arm controls the aluminum profile to move to the processing area where the double-headed saw and the aluminum profile drilling device are located. The transfer component 2 is equipped with a measuring component 6. The delivery component 7 controls the aluminum profile to move linearly relative to the main body 8. During the movement of the aluminum profile, the measuring component 6 simultaneously measures the length of the aluminum profile's movement relative to the main body 8. When the aluminum profile moves to the appropriate position, the double-headed saw and the aluminum profile drilling device on both sides of the main body 8 process the aluminum profile. After the aluminum profile is processed, the robotic arm controls the transfer component 2 to transport the processed aluminum profile to the finished product area.

[0039] When the delivery component 7 moves above the aluminum profile, the control lever 301 controls the delivery component 7 to descend until the outer wall of the aluminum profile is in contact with the outer wall of the fin 702. The robotic arm controls the delivery component 7 to continue descending until the aluminum profile and the fin 702 are fully engaged. The fin 702 changes from an inclined state to a parallel state relative to the drive shaft 701, and the outer wall of the fin 702 is parallel to the outer wall of the aluminum profile. Before the fin 702 is deflected, the clamping section formed between the fins 702 of the two delivery components 7 is an isosceles trapezoid. After the fin 702 is deflected, the clamping section formed between the fins 702 of the two delivery components 7 is a rectangle, and the width of the rectangle is equal to the width of the aluminum profile. After the delivery components 7 on both sides of the aluminum profile have completed clamping the aluminum profile, the robotic arm controls the transfer component 2 to rise and move to the processing area where the double-head saw and the aluminum profile drilling device are located.

[0040] Before the fin 702 deflects, the drive shaft 701 is activated, causing the fin 702 to move in a circular motion around the drive shaft 701. At this time, the upper contact point 703 of the fin 702 moves synchronously with the fin 702. The movement space of the contact point 703 does not overlap with the position of the feedback plate 602. After the fin 702 completes the deflection under the pressure of the aluminum profile, the movement space of the contact point 703 overlaps with the position of the feedback plate 602. During the movement of the aluminum profile driven by the fin 702, the upper contact point 703 of the fin 702 comes into contact with the feedback plate 602. After the two come into contact, the main body 8 receives an electrical signal from the feedback plate 602. Two adjacent electrical signals record the movement distance of the aluminum profile. The movement distance of the aluminum profile is the length of the arc formed by two adjacent fins 702.

[0041] The number of fins 702 inside the delivery components 7 on both sides of the aluminum profile is not the same. The number of fins 702 is odd. After two adjacent contacts 703 and feedback plate 602 collide, there is also a difference between the distances recorded by the measuring components 6 on both sides of the aluminum profile in a single instance. Since the delivery components 7 on both sides move synchronously, there is a small difference in the values ​​measured by the four sets of measuring components 6 on both sides of the aluminum profile. The difference is that the arc length of the set with fewer fins 702 is reduced by twice the arc length of the set with more fins 702.

[0042] When the aluminum profile moves to the processing area, the drive shaft 701 starts to rotate actively. The drive shaft 701 delivers the aluminum profile through the fins 702 until the delivery length of the aluminum profile by the delivery component 7, as measured by the measuring component 6, reaches the required length. At this time, the double-head saw and the aluminum profile drilling device in the processing area start to work. The drive rod in the processing area pushes the aluminum profile to shift. The aluminum profile moves from the delivery area between the delivery components 7 to the clamping area between the clamping components 5. The height of the aluminum profile is greater than the height of the side plate 601. Since the limiting plate 501 is connected to the side plate 601 through the rotating shaft, the rotating shaft is eccentrically installed on one side inside the limiting plate 501. The rotating shaft is installed on the side of the limiting plate 501 away from the aluminum profile. As the aluminum profile comes into contact with the limiting plate 501 under pressure, the pressure of the limiting plate 501 on the aluminum profile continuously increases and the area of ​​action increases synchronously. When the aluminum profile comes into contact with the main body 8 above under the action of the drive rod, the clamping component 5 has finished clamping the aluminum profile.

[0043] The drilling device is located on both sides of the aluminum profile, enabling double-sided drilling of the aluminum profile, after which the double-headed saw begins to process the aluminum profile;

[0044] Before the aluminum profile processing begins, i.e., when the main body 8 is positioned above the aluminum profile under the control of the robotic arm, the control lever 301 controls the main body 8 and the transfer component 2 to descend until the delivery component 7 is fully engaged with the aluminum profile. In addition to being connected to the main body 8 and the main plate 9 via the control lever 301, the two ends of the oil reservoir 401 are connected to the main body 8 and the main plate 9 respectively. Under the action of the control lever 301, the oil reservoir 401 extends synchronously, and the oil storage space inside the oil reservoir 401 increases synchronously, allowing the extension... The retracting rod 402 retracts to allow the internal hydraulic oil to move into the reservoir rod 401. After the aluminum profile is processed in the processing area, the control rod 301 retracts, causing the telescopic rod 402 to extend. Since the horizontal cross-sectional area of ​​the inner wall of the reservoir rod 401 is larger than that of the inner wall of the telescopic rod 402, the extension length of the telescopic rod 402 is greater than the retraction length of the control rod 301. As a result, the telescopic rod 402 pushes the aluminum profile away from the working area of ​​the transfer component 2 through the push plate, and then the aluminum profile falls into the finished product area.

[0045] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0046] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An aluminum profile cutting and drilling integrated device comprising a main body (8), characterized in that: The body (8) is provided with a processing area on one side, the body (8) comprises a driving component (1) and a transfer component (2), the driving component (1) comprises a mechanical arm, a power assembly (3) and a linkage assembly (4), the power assembly (3) is used for controlling the lifting of the transfer component (2), the linkage assembly (4) derives the kinetic energy from the power assembly (3), and the linkage assembly (4) is used for feeding and discharging aluminum profiles; The transfer component (2) comprises a clamping assembly (5), a measuring assembly (6) and a delivery assembly (7), the clamping assembly (5) is used for fixing work during aluminum profile processing, the clamping assembly (5) cooperates with equipment in the processing area to cut and punch the aluminum profile, the measuring assembly (6) is used for measuring the delivery length of the aluminum profile, and the delivery assembly (7) is used for clamping and linear conveying of the aluminum profile; The delivery assembly (7) comprises a driving shaft (701) installed in the body (8), the driving shaft (701) is combined by a limiting column and a tooth column, the limiting column and the tooth column are distributed in an up-down mode, the outer wall of the tooth column is provided with a plurality of fins (702), a contact (703) is installed above the fins (702), and the contact (703) is connected with the measuring assembly (6); The measuring assembly (6) comprises a side plate (601) installed above the contact (703), a feedback plate (602) is installed at the lower end of the side plate (601), the feedback plate (602) has a right-angled trapezoidal cross section, the width of the feedback plate (602) gradually decreases away from the limiting column, and the side plate (601) is connected with the clamping assembly (5); The clamping assembly (5) comprises a limiting plate (501) installed in the side plate (601), the limiting plate (501) has a triangular cross section, the limiting plate (501) is connected with the side plate (601) through a rotating shaft, the rotating shaft is eccentrically installed on one side of the inside of the limiting plate (501), and a groove is formed in the inside of the side plate (601).

2. The aluminum profile cutting and drilling integrated device according to claim 1, characterized in that: The linkage assembly (4) comprises an oil storage rod (401) installed above the body (8), the oil storage rod (401) is provided with a telescopic rod (402) in the middle, the oil storage rod (401) and the telescopic rod (402) are connected through a pipeline, a push plate is installed below the telescopic rod (402), the telescopic rod (402) penetrates through the body (8), the upper ends of the oil storage rod (401) and the telescopic rod (402) are connected with a main plate (9), the upper end of the main plate (9) is connected with the mechanical arm, and the inner wall of the oil storage rod (401) has a larger horizontal cross-sectional area than that of the telescopic rod (402).

3. The aluminum profile cutting and drilling integrated device according to claim 2, characterized in that: The power assembly (3) comprises a control rod (301) installed between the body (8) and the main plate (9), and the control rod (301) is used for changing the vertical distance between the body (8) and the main plate (9).

4. The aluminum profile cutting and drilling integrated device according to claim 2, characterized in that: Two groups of the transfer components (2) are arranged below the main plate (9), two groups of measuring assemblies (6) and delivery assemblies (7) are arranged in each group of the transfer components (2), and the number difference of the fins (702) in the two groups of the delivery assemblies (7) is one or two.

5. The aluminum profile cutting and drilling integrated device according to claim 4, characterized in that: The tooth column is internally provided with a plurality of fins (702), the number of the fins (702) is odd, the outer wall of the fin (702) is provided with a rubber pad, and the vertical section of the fin (702) is a right-angled trapezoid, and the hypotenuse of the right-angled trapezoid is attached to the limiting column.

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