Aluminum automatic film labeling device

Abstract

The present invention provides an automatic film-sticking and labeling device for aluminum materials, which relates to the technical field of automatic film-sticking and labeling equipment for aluminum materials, and includes a film-sticking component, a labeling component, a transition conveying component, and a storage and lifting component, and a storage and transfer vehicle is further provided below the storage and lifting component. The benefits of the present invention are that an automatic film-sticking and labeling device for aluminum materials, a transition conveying component, and a storage and lifting component are provided, and a storage and transfer vehicle is further provided below the storage and lifting component; the automatic film-sticking and labeling device for aluminum materials can simultaneously apply film and label to aluminum materials, synchronizing the two processes, thereby saving production time and transfer time, while the transition conveying component, the storage and lifting component, and the storage and transfer vehicle convert the aluminum materials at an angle and then stack them together, and then use the storage and transfer vehicle to transport the aluminum materials away, which is convenient for subsequent packaging of the aluminum materials and also convenient for continuous production. The modular transfer vehicle design supports fast line change and adapts to flexible production needs.

Description

Technical Field

[0001] The invention relates to the technical field of automatic film and labeling equipment for aluminum materials, in particular to an automatic film and labeling device for aluminum materials. Background Art

[0002] Before shipping, aluminum manufacturers apply both film and labels to the surface of the aluminum. The film protects the surface from scratches, while the label identifies the model and brand. However, most equipment on the market lacks the ability to simultaneously apply both film and labels, forcing manufacturers to install two separate machines. This segmented operation results in low efficiency and increased costs. The inefficiency is primarily due to the extended production cycle caused by the separation of processes. The main manifestation of this inefficiency is the time-consuming and labor-intensive transportation between equipment, which increases the workload of operators.

[0003] The Chinese patent document (publication number: CN215044468U, patent title: Aluminum Production Line Labeling Mechanism) discloses a technology comprising a suspension frame mounted above an aluminum material conveyor line. A fixed plate, hinged to the suspension frame via a connecting rod, is hingedly connected to the fixed plate. A handheld labeler is secured to the underside of the fixed plate. A driving mechanism is located between the fixed plate and the suspension frame, driving the labeling end of the handheld labeler downward. A retraction mechanism is located at the other end of the fixed plate, driving the rotating handle of the handheld labeler upward. A winding mechanism for winding release paper is also secured to the rotating handle of the handheld labeler. This aluminum production line labeling mechanism is compact and convenient for labeling aluminum materials.

[0004] From the above implementation plan and the corresponding drawings, it can be seen that the labeling mechanism of the aluminum production line can only complete labeling, and film lamination still needs to rely on other equipment, which fails to solve the core problems of transportation time and manpower consumption. Summary of the Invention

[0005] The present invention overcomes the shortcomings of the prior art and provides an automatic film-sticking and labeling device for aluminum materials, which is equipped with an automatic film-sticking and labeling device for aluminum materials, a transition conveying component, and a storage and lifting component. A storage and transfer vehicle is also provided under the storage and lifting component. The automatic film-sticking and labeling part of the device for aluminum materials can simultaneously perform the film-sticking and labeling processes, effectively saving production and transportation time. The transition conveying component, the storage and lifting component, and the storage and transfer vehicle work in coordination, and can perform angle conversion and stacking operations on aluminum materials. After that, the aluminum materials can be conveniently transferred with the help of the storage and transfer vehicle, which provides convenience for subsequent packaging processes. In addition, by replacing the storage and transfer vehicle, an empty vehicle can be quickly replaced when the aluminum materials are full, ensuring continuous production. The modular transfer vehicle design supports quick line changes and meets the needs of flexible production.

[0006] In order to solve the above technical problems, the present invention is achieved through the following technical solutions:

[0007] An automatic film and labeling device for aluminum materials, comprising a film-sticking component, a labeling component, a transition conveying component, and a storage and lifting component, wherein a storage and transfer vehicle is provided below the storage and lifting component;

[0008] The film-sticking assembly and labeling assembly are used to stick films and labels on long strips of aluminum. The cross-section of the long strips of aluminum is a right-angled shape with two perpendicular sides. When the aluminum is labeled and film-sticked, one plane of the aluminum is parallel to the ground to form an L-shape. After labeling and film-sticking, the aluminum is transported to the transition conveying assembly. The transition conveying assembly is provided with a flip seat. The flip seat flips the aluminum so that the tip of the intersection of the two sides of the aluminum faces downward, and then transports it to the storage and lifting assembly. The storage and lifting assembly clamps the storage transfer cart so that it can be gradually raised and lowered. As the aluminum materials are placed in the storage transfer cart one by one, the storage transfer cart gradually descends. After the storage transfer cart is full of aluminum materials, it is removed from the storage and lifting assembly to transfer the aluminum materials to the next process.

[0009] Furthermore, an aluminum material conveying assembly is further provided on one side of the film laminating assembly and the labeling assembly. The aluminum material is input from one end of the aluminum material conveying assembly, the film laminating assembly applies film to the side of the aluminum material, and the labeling assembly applies label to the upward side of the aluminum material.

[0010] The aluminum material conveying assembly includes a conveying motor, which transmits power to a conveying driving wheel through a transmission gear. A conveying passive wheel is provided above the conveying driving wheel, and the conveying passive wheel is connected to a passive wheel spring seat. The passive wheel spring seat utilizes the elastic force of the spring to squeeze the conveying passive wheel toward the conveying driving wheel. The plane of the aluminum material parallel to the ground is clamped between the conveying driving wheel and the conveying passive wheel, and the rotation of the conveying driving wheel pushes the aluminum material to move.

[0011] Furthermore, the film sticking assembly includes a film frame, which is used to install the film roll;

[0012] A film strip limiting component is provided on one side of the film frame. The film strip limiting component is provided with two film strip limiting blocks for limiting the left and right positions of the film strip. After the film strip of the film roll is pulled out, it passes through the film strip limiting component and is attached to the side of the aluminum material.

[0013] As the aluminum material is pushed forward by the aluminum material conveying assembly, the film strip is also pulled out and attached to the side of the aluminum material;

[0014] The film laminating assembly includes an upper limit pressing block for the aluminum material, a side pressing block for the film strip, and an aluminum side pressing roller. The upper limit pressing block for the aluminum material is used to press against the upper end surface of the aluminum material, and the side pressing block for the film strip is used to press against the side surfaces of the aluminum material and the film; the aluminum side pressing roller is used to press against the side surfaces of the aluminum material during the conveying process of the aluminum material;

[0015] The aluminum upper limit pressing block and the membrane strip side pressing block are roller bodies made of sponge;

[0016] The film sticking assembly includes a film strip cutting motor, which is connected to a film strip cutter. The film strip cutter is used to cut the film strips connected between every two sections of aluminum material.

[0017] Furthermore, the labeling assembly includes a labeling lifting component, the labeling lifting component includes a lifting rod and a lifting screw, the lifting rod is slidably connected to a lifting block, and the lifting screw is threadedly connected to the lifting block;

[0018] The lifting block is connected to the transverse adjustment rod, and the lifting block is provided with an open circular groove, the transverse adjustment rod is inserted into the open circular groove, and the open circular groove clamps the transverse adjustment rod by tightening the bolt on one side of the open circular groove. A first limiting clip is also provided in the open circular groove, and the transverse adjustment rod is provided with a limiting clip slot, and the first limiting clip is inserted into the limiting clip slot;

[0019] One end of the lateral adjustment rod is rotatably connected to a lateral adjustment handle, the lateral adjustment handle is connected to a lateral screw, and the lateral screw is arranged in the lateral adjustment rod; the lateral screw is threadedly connected to the labeling nut block; the outer side of the labeling nut block is connected to the sliding block, the sliding block is clamped in the labeling base plate, and the lateral adjustment rod is slidably connected to the sliding block.

[0020] Furthermore, the labeling base plate is connected to the label rack, the first transition shaft, the second transition shaft, the conveying shaft component, the label output component and the label waste paper recovery rack;

[0021] The label rack is used to hang a whole roll of labels. After the label strip is pulled out from the rolled label roll, it passes through the pulling spring component, then passes through the first transition shaft and the second transition shaft to enter the conveying shaft component and then bypass the label output component. After the label is attached to the aluminum material, the label waste paper passes through the conveying shaft component and finally goes to the label waste paper recovery rack for recycling;

[0022] The conveying shaft component is connected to the power component.

[0023] Furthermore, the conveying shaft component includes a conveying main shaft, and a sixth transition shaft, a fifth transition shaft and a first linkage card shaft are respectively provided on both sides above the conveying main shaft, the first linkage card shaft is connected to the first interference card shaft, both ends of the first interference card shaft are rotatably connected to the first long plate, both ends of the first linkage card shaft are also rotatably connected to the first long plate, the first linkage card shaft is connected to the labeling base plate, and the first interference card shaft rotates around the first long plate as a radius and the first linkage card shaft as a center;

[0024] Before installing the label strip, the first interference fit card shaft rests on the conveying main shaft and only relies on gravity to droop. After the label strip passes between the conveying main shaft and the first interference fit card shaft, the first interference fit card shaft is manually squeezed downwards so that the first interference fit card shaft and the conveying main shaft are in contact with each other, thus clamping the label strip for conveying.

[0025] The third transition shaft, the fourth transition shaft and the second linkage clamping shaft are respectively arranged on both sides below the conveying main shaft;

[0026] The two ends of the second linkage clamping shaft are rotatably connected to the second long plate, the two ends of the second interference clamping shaft are also rotatably connected to the second long plate, the second linkage clamping shaft is connected to the labeling base plate, and the second interference clamping shaft rotates around the second linkage clamping shaft as the axis and the second long plate as the radius;

[0027] Before installing the label waste paper, first pass the label waste paper between the conveying main shaft and the second interference fit clamp shaft, then manually press the second interference fit clamp shaft upwards so that the second interference fit clamp shaft and the conveying main shaft are in contact with each other, so that the label waste paper can be clamped and conveyed;

[0028] The power component includes a label output motor, which is connected to a main shaft pulley via a belt, the main shaft pulley is connected to a recovery pulley via a belt, the main shaft pulley is connected to a conveying main shaft, and the recovery pulley is connected to a label waste paper recovery rack.

[0029] Furthermore, the transition conveying assembly includes a plurality of angle turning components and a conveying roller component arranged at intervals, and a pushing component is provided at one end of the transition conveying assembly;

[0030] The angle flip component includes a flip base, one end of the flip base is connected to the flip connecting rod, and the other end is connected to the flip cylinder. A flip slide rail is provided in the middle of the flip base, and the flip slide rail is slidably connected to the flip slider. The internal shape of the flip seat matches the external shape of the aluminum material. The flip seat is composed of two vertical surfaces. The intersection of the vertical surfaces of the flip seat is rotatably connected to the flip slider, and the end of one of the vertical surfaces of the flip seat is rotatably connected to the flip connecting rod;

[0031] The flip slider is connected to the flip cylinder;

[0032] The pushing component includes a pushing cylinder, the pushing cylinder is connected to the pushing lifting cylinder, and the pushing lifting cylinder is connected to the pushing block; the pushing component is used to push the end of the aluminum material and push the aluminum material from the transition conveying assembly to the storage transfer vehicle.

[0033] Furthermore, the storage lifting assembly includes a storage lifting power component, storage lifting support parts are provided on both sides of the storage lifting power component, and a transfer vehicle slide is provided in the middle of the storage lifting support parts;

[0034] The storage and lifting power component includes a storage and lifting motor, a driving shaft, a driven shaft, and a first lifting transmission shaft and a second lifting transmission shaft located on both sides of the storage and lifting power component. The storage and lifting motor is connected to the first sprocket, the middle of the driving shaft is connected to the driving gear, one end of the driving shaft is connected to the second sprocket, and the other end is connected to the third sprocket;

[0035] The middle portion of the passive rotating shaft is connected to the passive gear, and one end of the passive rotating shaft is connected to the fourth sprocket;

[0036] The middle portion of the first lifting transmission shaft is connected to the first lifting sprocket, and both ends are connected to the fifth sprocket;

[0037] The middle portion of the second lifting transmission shaft is connected to the second lifting sprocket, and both ends are connected to the sixth sprocket;

[0038] The first sprocket is connected to the third sprocket via a chain;

[0039] The driving gear is meshed with the driven gear;

[0040] The fourth sprocket is connected to the second lifting sprocket via a chain;

[0041] The second sprocket is connected to the first lifting sprocket through a chain.

[0042] Furthermore, the storage lifting support portion includes a storage lifting base frame, and double tracks are provided on both sides of the storage lifting base frame. The step-by-step lifting platform is slidably connected to the double tracks, and the step-by-step lifting platform is connected to the seventh sprocket;

[0043] The first pulley and the second pulley are provided on both sides of the step-by-step lifting platform. The first pulley is provided in the middle of the double tracks and rolls and slides on the inner side of the double tracks. The second pulley rolls and slides on the inner wall of the storage lifting base frame in the gap between the double tracks.

[0044] The step-by-step lifting platform is provided with a fork holding track and a fork holding cylinder, the fork holding track is slidably connected to a fork holding rod, and the fork holding cylinder is connected to the fork holding rod.

[0045] Furthermore, the storage and transfer vehicle includes a transfer compartment, an inverted V seat is provided inside the transfer compartment, and limited adjustment long columns are slidably provided on both sides of the inverted V seat;

[0046] The inverted V-seat is provided with a V-seat transverse groove, and the bottom of the transfer compartment is provided with a compartment bottom transverse groove. The projection area of the V-seat transverse groove covers the compartment bottom transverse groove. The limit adjustment long column is slidably inserted into the V-seat transverse groove. The bottom of the limit adjustment long column is provided with a first clamping plate and a second clamping plate. The bottom plate of the transfer compartment is clamped between the first clamping plate and the second clamping plate.

[0047] The transfer carriage is rotatably connected to a width adjustment bolt, one end of which is connected to a width adjustment handle, the width adjustment bolt is threadedly connected to an aluminum limit adjustment connection seat, and the aluminum limit adjustment connection seat is connected to a limit adjustment long column;

[0048] A door panel clamping column is provided on one side of the transfer compartment, and the door panel clamping column is detachably connected to the end door panel. The end door panel is provided with a first clamping slot and a second clamping slot that are in communication, and the inner diameter of the second clamping slot is larger than the inner diameter of the first clamping slot. The door panel clamping column includes a large cylinder and a small cylinder connected together, and the small cylinder is fixedly connected to the transfer compartment; the end door panel is also provided with a door handle;

[0049] The lower end of the transfer carriage is connected to casters.

[0050] Compared with the prior art, the present invention has the following beneficial effects:

[0051] The system is equipped with an automated aluminum film and labeling device, a transition conveyor assembly, and a storage and lifting assembly. A storage and transfer vehicle is also located below the storage and lifting assembly. The automated aluminum film and labeling portion of this device can perform both film and labeling processes simultaneously, effectively saving production and transportation time. The transition conveyor assembly, storage and lifting assembly, and storage and transfer vehicle work together to convert and stack aluminum materials at different angles. The storage and transfer vehicle can then be used to conveniently transfer aluminum materials, facilitating subsequent packaging processes. Furthermore, by replacing the storage and transfer vehicle, an empty vehicle can be quickly replaced when the aluminum material pile is full, ensuring continuous production. The modular transfer vehicle design supports rapid line changeovers, meeting the needs of flexible production. BRIEF DESCRIPTION OF THE DRAWINGS

[0052] The accompanying drawings are used to provide a further understanding of the present invention and are used to explain the present invention together with the embodiments of the present invention, but do not constitute a limitation of the present invention. In the accompanying drawings:

[0053] Figure 1 2 is a schematic diagram of the overall structure of a film and labeling device according to an embodiment of the present invention;

[0054] Figure 2 Schematic diagram of the structure of the film-applying assembly, labeling assembly and aluminum material conveying assembly according to an embodiment of the present invention;

[0055] Figure 3 This is a schematic structural diagram of a labeling assembly and an aluminum material conveying assembly according to an embodiment of the present invention;

[0056] Figure 4 is a structural diagram of a labeling assembly according to an embodiment of the present invention;

[0057] Figure 5 is a first exploded schematic diagram of a labeling assembly according to an embodiment of the present invention;

[0058] Figure 6 is a second exploded schematic diagram of a labeling assembly according to an embodiment of the present invention;

[0059] Figure 7 This is a schematic diagram of the direction of label strips and label waste paper according to an embodiment of the present invention;

[0060] Figure 8 1 is a schematic structural diagram of a tag output component according to an embodiment of the present invention;

[0061] Figure 9 2. It is a schematic structural diagram of a transition conveying assembly according to an embodiment of the present invention;

[0062] Figure 10 This is a schematic structural diagram of the angle flip component in a flipped state according to an embodiment of the present invention;

[0063] Figure 11 This is a schematic structural diagram of the angle flip component in an unflipped state according to an embodiment of the present invention;

[0064] Figure 12 This is a schematic structural diagram of a storage and transfer vehicle according to an embodiment of the present invention;

[0065] Figure 13 This is a front view of a storage and transfer vehicle according to an embodiment of the present invention;

[0066] Figure 14 This is a schematic diagram of an explosion of a storage and transfer vehicle according to an embodiment of the present invention;

[0067] Figure 15 This is a schematic structural diagram of a storage lifting assembly according to an embodiment of the present invention;

[0068] Figure 16 2. It is an exploded schematic diagram of a storage lifting assembly according to an embodiment of the present invention;

[0069] Figure 17 It is an exploded schematic diagram of the storage lifting support part according to an embodiment of the present invention.

[0070] In the figure: 1. Film assembly; 101. Film frame; 102. Film strip limiting component; 103. Aluminum upper limit pressure block; 104. Film strip side pressure block; 105. Film strip cutting motor; 1051. Film strip cutter; 106. Aluminum side pressure roller; 2. Labeling assembly; 201. Labeling lifting component; 2011. Lifting rod; 2012. Lifting screw; 2013. Lifting block; 20131. First limiting card strip; 2014. Lateral adjustment rod; 20141. Limiting card slot; 2015. Horizontal screw; 2016. Horizontal adjustment handle; 202. Labeling base plate; 2021. Sliding block; 2022. First transition shaft; 2023. Second transition shaft; 203. Label holder; 204. Pull spring component; 2040, pulling base; 2041, pulling shaft; 20411, pulling rocker; 2042, supporting wheel; 20421, supporting rocker; 2043, first spring; 2044, second spring; 205, power component; 2051, marking motor; 2052, main shaft pulley; 2053, recovery pulley; 206, conveying shaft component; 2061, conveying main shaft; 2062, first linkage clamping shaft; 20621, first interference clamping shaft; 2063, third transition shaft; 2064, fourth transition shaft; 2065, fifth transition shaft; 2066, sixth transition shaft; 2067, second linkage clamping shaft; 20671, second interference clamping shaft; 207, marking component; 2071, marking adjustment rod; 2072 , label plate; 2073, label limit block; 2074, label pressure block; 2075, color mark sensor; 208, label waste paper recycling rack; 3, aluminum conveying assembly; 301, conveying motor; 302, conveying driving wheel; 303, passive wheel spring seat; 304, conveying passive wheel; 4, transition conveying assembly; 401, angle flip component; 4011, flip base; 4012, flip slide; 4013, flip connecting rod; 4014, flip slider; 4015, flip seat; 4016, flip cylinder; 402, conveying roller assembly; 403, pushing assembly; 4031, propulsion cylinder; 4032, push lifting cylinder; 4033, pushing block; 5, storage lifting assembly; 501, storage lifting power component ; 5011, storage lifting motor; 5012, first sprocket; 5013, driving shaft; 50131, driving gear; 50132, second sprocket; 50133, third sprocket; 5014, passive shaft; 50141, passive gear; 50142, fourth sprocket; 5015, first lifting transmission shaft; 50151, fifth sprocket; 5016, second lifting transmission shaft; 50161, sixth sprocket; 502, storage lifting support; 5021, storage lifting base; 5022, double track; 5023, seventh sprocket; 5024, step-by-step lifting platform; 5025, first pulley; 5026, second pulley; 5027, fork holding track; 5028, fork holding cylinder; 5029, fork holding rod;503, transfer cart slide; 6, transfer cart storage; 601, transfer compartment; 6011, inverted V-seat; 6012, V-seat horizontal groove; 6013, compartment bottom horizontal groove; 6014, door panel clamping column; 602, aluminum limit adjustment connector; 603, limit adjustment long column; 6031, first clamping plate; 6032, second clamping plate; 604, width adjustment bolt; 6041, width adjustment handle; 605, end door panel; 6051, first clamping slot; 6052, second clamping slot; 6053, door handle; 606, casters. DETAILED DESCRIPTION

[0071] The preferred embodiments of the present invention are described below with reference to the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0072] like Figures 1 to 17 As shown, an automatic film and labeling device for aluminum materials includes a film-sticking component 1, a labeling component 2, a transition conveying component 4, and a storage lifting component 5. A storage transfer vehicle 6 is also provided below the storage lifting component 5;

[0073] The film-sticking component 1 and the labeling component 2 apply film and labels to the long strip of aluminum material. The cross-section of the long strip of aluminum material is a right-angled shape with two perpendicular sides. When the aluminum material is labeled and film-sticked, one plane of the aluminum material is parallel to the ground to form an L shape. After the labeling and film-sticking are completed, the aluminum material is conveyed to the transition conveying component 4. The transition conveying component 4 is provided with a flip seat 4015. The flip seat 4015 flips the aluminum material so that the tip of the intersection of the two sides of the aluminum material faces downward, and then conveys it to the storage lifting component 5. The storage lifting component 5 clamps the storage transfer cart 6 so that it can be gradually raised and lowered. As the aluminum materials are placed one by one in the storage transfer cart 6, the storage transfer cart 6 gradually descends. After the storage transfer cart 6 is full of aluminum materials, it is removed from the storage lifting component 5 to transfer the aluminum materials to the next process.

[0074] Through the synchronous operation of the film component 1 and the labeling component 2, the equipment can simultaneously apply film and label to aluminum materials, greatly improving the efficiency of aluminum film and labeling. Compared with the traditional practice of completing these two processes on two devices respectively, this also saves the transportation time of aluminum materials and eliminates the operator's action of transferring aluminum materials. While improving efficiency, it also reduces the operator's labor intensity.

[0075] Because aluminum is in a right-angled shape, directly stacking it not only takes up space, but also makes the structure of the stacked aluminum unstable, which is not conducive to storage and subsequent packaging of the aluminum. Therefore, a transition conveying component 4 is provided to rotate the aluminum after film and labeling into an inverted V shape. In this way, after the aluminum is stacked, the structural stability of the stacked aluminum is improved and the storage space occupied by the aluminum is reduced. The inverted V-shaped stacking avoids direct contact of the right-angled aluminum, reduces the risk of surface scratches, and ensures the quality of the aluminum.

[0076] The storage and transfer trolley 6 is then pulled down from the transfer trolley slide 503 and replaced with another empty storage and transfer trolley 6. In this way, the aluminum materials are neatly stored in the storage and transfer trolley 6, which is convenient for the transportation of the aluminum materials and the subsequent packaging of the aluminum materials. The method of replacing the storage and transfer trolley 6 makes it possible to quickly replace the empty trolley every time the aluminum materials are stacked up, thereby realizing continuous production. The modular transfer trolley design supports fast line change and adapts to flexible production needs.

[0077] An aluminum material conveying assembly 3 is also provided on one side of the film laminating assembly 1 and the labeling assembly 2. Aluminum material is input from one end of the aluminum material conveying assembly 3. The film laminating assembly 1 applies film to the side of the aluminum material, and the labeling assembly 2 applies label to the upward side of the aluminum material.

[0078] The aluminum material conveying assembly 3 includes a conveying motor 301, which transmits power to a conveying drive wheel 302 via a transmission gear. The surface of the conveying drive wheel 302 is coated with a high-friction rubber layer to enhance the contact friction with the aluminum material. A conveying driven wheel 304 is located directly above the conveying drive wheel 302. The conveying driven wheel 304 is mounted on a driven wheel spring seat 303 via bearings. Multiple sets of preloaded springs are installed within the driven wheel spring seat 303. The elastic force of the springs ensures that the conveying driven wheel 304 always applies constant pressure toward the conveying drive wheel 302. The aluminum material's plane, parallel to the ground, is evenly clamped between the conveying drive wheel 302 and the conveying driven wheel 304, forming a stable force-bearing structure. When the conveying drive wheel 302 rotates under the drive of the motor, the friction transmission principle propels the aluminum material to move precisely in a straight line.

[0079] The film sticking assembly 1 includes a film frame 101, which is used to install a film roll; a film strip limiting component 102 is provided on one side of the film frame 101, and the film strip limiting component 102 is provided with two film strip limiting blocks for limiting the left and right positions of the film strip, ensuring that the film strip does not deviate during the transportation process, thereby improving the film sticking accuracy.

[0080] After the film strip of the film roll is pulled out, it passes through the film strip limiting component 102 and is attached to the side of the aluminum material. As the aluminum material is pushed by the aluminum material conveying assembly 3, the film strip is also pulled out and attached to the side of the aluminum material. The film application assembly 1 includes an aluminum material upper limit pressure block 103, a film strip side pressure block 104, and an aluminum material side pressure roller 106. The aluminum material upper limit pressure block 103 uses a highly elastic sponge roller body and is installed above the aluminum material conveying path. It is used to press against the upper end face of the aluminum material to prevent the aluminum material from jumping or shifting during the conveying process. The film strip side pressure block 104 also uses a sponge roller body and is located on the side of the aluminum material. When the sponge is squeezed, it can apply reverse pressure to the aluminum material, allowing the film strip to better adhere to the side of the aluminum material. During the film application process, uniform pressure is applied to the aluminum material and the film material to ensure that the film material is tightly fitted and avoid bubbles or wrinkles. The aluminum material side pressure roller 106 is coated with wear-resistant rubber and continuously presses against the side of the aluminum material during the conveying process to prevent the aluminum material from shifting due to vibration or inertia, thereby ensuring conveying stability. The film-sticking assembly 1 includes a film strip cutting motor 105, which is connected to a film strip cutter 1051. The film strip cutter 1051 can accurately cut the film strip when the aluminum material is conveyed to a set length, thereby realizing independent film sticking of a single section of aluminum material, so that the aluminum materials can be stacked together later.

[0081] The labeling assembly 2 includes a labeling lifting component 201, which includes a lifting rod 2011 and a lifting screw 2012. The lifting rod 2011 is slidably connected to a lifting block 2013, and the lifting screw 2012 is threadedly connected to the lifting block 2013; the lifting block 2013 is connected to the lateral adjustment rod 2014, and the lifting block 2013 is provided with an open circular groove, and the lateral adjustment rod 2014 is inserted into the open circular groove. By tightening the bolt on one side of the open circular groove, the open circular groove clamps the lateral adjustment rod 2014, and a first limiting card strip 20131 is also provided in the open circular groove. The lateral adjustment rod 2014 is provided with a limiting card slot 20141, and the first limiting card strip 20131 Inserted in the limiting slot 20141; one end of the lateral adjustment rod 2014 is rotatably connected to the lateral adjustment handle 2016, the lateral adjustment handle 2016 is connected to the lateral screw 2015, and the lateral screw 2015 is arranged in the lateral adjustment rod 2014; the lateral screw 2015 is threadedly connected to the labeling nut block; the outer side of the labeling nut block is connected to the sliding block 2021, and the sliding block 2021 is clamped in the labeling base plate 202, the lateral adjustment rod 2014 is slidably connected to the sliding block 2021, and the lateral adjustment handle 2016 is manually rotated to adjust the distance between the labeling base plate 202 and the lifting block 2013, thereby adjusting the left and right position of the label on the aluminum material.

[0082] The labeling base plate 202 is connected to the label rack 203, the first transition shaft 2022, the second transition shaft 2023, the conveying shaft component 206, the label output component 207 and the label waste paper recovery rack 208;

[0083] The label rack 203 is used to hang a whole roll of labels. After the label strip is pulled out from the rolled label roll, it passes through the pulling spring component 204, then passes through the first transition shaft 2022 and the second transition shaft 2023, enters the conveying shaft component 206, and then passes around the label output component 207. After the label is affixed to the aluminum material, the waste label paper passes through the conveying shaft component 206 and finally passes to the waste label paper recycling rack 208 for recycling.

[0084] The conveying shaft component 206 is connected to the power component 205;

[0085] The conveying shaft component 206 adopts a two-way independent conveying method, with the upper part conveying the label belt and the lower part recovering the base paper waste. Using a conveying main shaft 2061, the upper and lower diversion conveying can be realized, which not only saves the motor configuration, but also enables the labeling and recycling of label waste paper to be synchronized, so that the amount of label waste paper recovered is the same as the number of labels applied, so that there will be no redundancy of label waste paper in the equipment to affect the operation of the equipment.

[0086] The power component 205 includes a label-discharging motor 2051, which is connected to a main shaft pulley 2052 via a belt. The main shaft pulley 2052 is connected to a recovery pulley 2053 via a belt. The main shaft pulley 2052 is connected to the conveying main shaft 2061, and the recovery pulley 2053 is connected to the label waste paper recovery rack 208.

[0087] The conveying main shaft 2061 serves as the core driving shaft and is driven by the label-discharging motor 2051 to realize continuous rotation. A sixth transition shaft 2066 and a fifth transition shaft 2065 are provided on one side above the conveying main shaft 2061 for guiding the label tape path, and a first linkage card shaft 2062 is provided on the other side. The conveying rotating shaft component 206 includes the conveying main shaft 2061, and a sixth transition shaft 2066, a fifth transition shaft 2065 and a first linkage card shaft 2062 are respectively provided on both sides above the conveying main shaft 2061. The first linkage card shaft 2062 is connected to the first interference card shaft 20621. Both ends of the first interference card shaft 20621 are rotatably connected to the first long plate. Both ends of the first linkage card shaft 2062 are also rotatably connected to the first long plate. The first linkage card shaft 2062 is connected to the labeling base plate 202. The first interference card shaft 20621 rotates around with the first long plate as the radius and the first linkage card shaft 2062 as the center.

[0088] 61 and the first interference fit axis 20621, so that the label strip can be clamped and transported.

[0089] The conveying of waste label paper is achieved by the conveying main shaft 2061 and the second interference fit shaft 20671. A third transition shaft 2063, a fourth transition shaft 2064 and a second linkage shaft 2067 are respectively provided on both sides below the conveying main shaft 2061. Both ends of the second linkage shaft 2067 are rotatably connected to the second long plate. Both ends of the second interference fit shaft 20671 are also rotatably connected to the second long plate. The second linkage shaft 2067 is connected to the labeling base plate 202. The second interference fit shaft 20671 rotates around the second linkage shaft 2067 with the second long plate as the radius.

[0090] Before installing the label waste paper, first pass the label waste paper through between the conveying main shaft 2061 and the second interference fit clamping shaft 20671, and then manually squeeze the second interference fit clamping shaft 20671 upward so that the second interference fit clamping shaft 20671 and the conveying main shaft 2061 are interfered with each other. After the installation is completed, the manual release can be made. At this time, due to the pressure generated by the interference fit between the second interference fit clamping shaft 20671 and the conveying main shaft 2061, the label waste paper is clamped between the two. Therefore, when the conveying main shaft 2061 rotates, it can also drive the label waste paper to move, thereby realizing the recycling of the label waste paper.

[0091] The label strip and label waste paper are clamped by the interference fit between the first interference fit clamping shaft 20621 and the conveying main shaft 2061, and the second interference fit clamping shaft 20671 and the conveying main shaft 2061, making the mechanism very simple to operate and the clamping stable, thereby ensuring stable conveying of the labels.

[0092] The pulling spring component 204 adopts a double pendulum-double spring buffer design, including a pulling pendulum 20411, one end of which is rotatably connected to the labeling base plate 202, and a supporting pendulum 20421. The other end of the pulling pendulum 20411 is rotatably connected to a pulling shaft 2041. The pulling shaft 2041 serves as a load-bearing and guiding component for the label tape, providing moderate tension when it droops naturally. The other end of the supporting pendulum 20421 is rotatably connected to a support wheel 2042, and the pulling shaft 2041 abuts against the lower side of the pulling pendulum 20411; the pulling pendulum 20411 is connected to a first spring 2043, the other end of the first spring 2043 is connected to the pulling base 2040, the supporting pendulum 20421 is connected to a second spring 2044, the other end of the second spring 2044 is connected to the pulling base 2040;

[0093] After the label is pulled out of the label roll, the label strip is relaxed by pulling the spring component 204, so that the label strip is in a relaxed state when being pulled by the conveying shaft component 206, preventing the label strip from being pulled excessively and broken during operation. The gravity of the pulling shaft 2041 causes the label strip to be pulled apart, and the first spring 2043 can assist the pulling shaft 2041 in resetting after the label strip is pulled away by the conveying shaft component 206, so that the pulling shaft 2041 will not fall to the bottom and can no longer relax the label roll. The pulling shaft 2041 always supports the lower side of the pulling rocker 20411 under the elastic force of the second spring 2044, ensuring that the lower side of the pulling rocker 20411 is in an upward state. In this process, the first spring 2043 provides the main reset force, and the second spring 2044 maintains the balance of the system. The two springs work together to form a stable elastic support system.

[0094] The dual-spring coordinated system maintains the optimal working angle of the pulling shaft 2041 through spring preload, which can prevent excessive pulling that may cause label breakage, and avoid the label strip from completely loosening and causing poor conveying. It also has a self-reset function to ensure that the system returns to its initial state after each conveying.

[0095] The labeling component 207 includes a labeling adjustment rod 2071, which forms a sliding pair with the labeling base plate 202. The labeling adjustment rod 2071 is used to adjust the distance between the labeling component 207 and the labeling base plate 202, thereby adjusting the distance between the label and the aluminum material when the label is pushed out, ensuring the accurate attachment of labels of different thicknesses to the aluminum material. The labeling component 207 is connected to the labeling plate 2072, and the label limiting block 2073 is symmetrically provided on the labeling plate 2072. The label pressing block 2073 is rotatably connected to the labeling plate 2072. Block 2074, the label pressing block 2074 is used to press the label strip being conveyed so that the label strip will not jump up. After the label strip passes the bottom end of the label output plate 2072, the label and the label waste paper are separated. At this time, the label is attached to the aluminum material and the label waste paper is recycled. A color mark sensor 2075 is also provided between the label output plate 2072 and the labeling base plate 202. The color mark sensor 2075 is used to sense the gap position between each two labels. The color mark sensor 2075 can feed back the quantity information of the labels to the system.

[0096] The transition conveying assembly 4 includes a plurality of angle turning components 401 and a conveying roller component 402 arranged at intervals, and a pushing component 403 is provided at one end of the transition conveying assembly 4;

[0097] The angle flip component 401 includes a flip base 4011, one end of the flip base 4011 is connected to the flip connecting rod 4013, and the other end is connected to the flip cylinder 4016. A flip slide rail 4012 is provided in the middle of the flip base 4011, and the flip slide rail 4012 is slidably connected to the flip slider 4014. The internal shape of the flip seat 4015 matches the external shape of the aluminum material. The flip seat 4015 is composed of two vertical surfaces. The intersection of the vertical surfaces of the flip seat 4015 is rotatably connected to the flip slider 4014. The end of one of the vertical surfaces is connected to the flip connecting rod 4013; the flip slider 4014 is connected to the flip cylinder 4016; the flip cylinder 4016 pushes the flip slider 4014 to move along the flip rail 4012, so that the flip slider 4014 drives the flip seat 4015 to rotate, thereby allowing the flip seat 4015 to switch between two angles. Through the innovative mechanical linkage design, this component achieves precise angle conversion during the aluminum material conveying process, allowing the aluminum material to enter the next stacking process smoothly.

[0098] The conveying roller component 402 enables the aluminum material to be conveyed on the transition conveying assembly 4, and cooperates with the angle flipping component 401 to enable the aluminum material to be flipped during transportation. When the aluminum material reaches the end of the transition conveying assembly 4, the conveying roller component 402 can no longer push the aluminum material, so a pushing component 403 is provided to push the tail end of the aluminum material onto the storage and transfer vehicle 6. The pushing component 403 includes a thrust cylinder 4031, which is connected to a pushing lifting cylinder 4032, which is connected to a pushing block 4033. The pushing component 403 is used to push the end of the aluminum material and push the aluminum material from the transition conveying assembly 4 to the storage and transfer vehicle 6.

[0099] The storage lifting assembly 5 includes a storage lifting power component 501, a storage lifting support portion 502 is provided on both sides of the storage lifting power component 501, and a transfer vehicle slide 503 is provided in the middle of the storage lifting support portion 502;

[0100] The storage and lifting power component 501 includes a storage and lifting motor 5011, a driving shaft 5013, a passive shaft 5014, and a first lifting transmission shaft 5015 and a second lifting transmission shaft 5016 located on both sides of the storage and lifting power component 501. The storage and lifting motor 5011 is connected to the first sprocket 5012. The middle of the driving shaft 5013 is connected to the driving gear 50131. One end of the driving shaft 5013 is connected to the second sprocket 50132 and the other end is connected to the third sprocket 50133. The middle of the passive shaft 5014 is connected to the passive gear 50141, and one end of the passive shaft 5014 is connected to the fourth sprocket 50142.

[0101] The first sprocket 5012 is connected to the third sprocket 50133 via a chain; the rotation of the third sprocket 50133 drives the driving shaft 5013 to rotate, thereby driving the driving gear 50131 to rotate, and the driving gear 50131 is meshed and connected with the driven gear 50141; thus, the driving shaft 5013 and the driven shaft 5014 can rotate synchronously in opposite directions.

[0102] The middle part of the first lifting transmission shaft 5015 is connected to the first lifting sprocket, and the two ends are connected to the fifth sprocket 50151; the middle part of the second lifting transmission shaft 5016 is connected to the second lifting sprocket, and the two ends are connected to the sixth sprocket 50161; the first lifting sprocket is connected to the second sprocket 50132 through a chain, so that the power of the active rotating shaft 5013 can be transmitted to the first lifting transmission shaft 5015, thereby driving the fifth sprocket 50151 to rotate.

[0103] The second lifting sprocket is connected to the fourth sprocket 50142 through a chain, so that the power of the passive rotating shaft 5014 can be transmitted to the second lifting transmission shaft 5016, thereby driving the sixth sprocket 50161 to rotate.

[0104] The fifth sprocket 50151 and the sixth sprocket 50161 are connected to the step-by-step lifting platform 5024 via a chain. Therefore, when the fifth sprocket 50151 and the sixth sprocket 50161 rotate, the step-by-step lifting platform 5024 can be pulled up and down by the chain.

[0105] The storage and lifting support part 502 includes a storage and lifting base frame 5021, and double tracks 5022 are set on both sides of the storage and lifting base frame 5021. The step-by-step lifting platform 5024 is slidingly connected to the double tracks 5022, and the step-by-step lifting platform 5024 is connected to the seventh sprocket 5023; therefore, the storage and lifting motor 5011 drives the active shaft 5013 to rotate, and then the active gear 50131 and the passive gear 50141 are engaged so that the passive shaft 5014 can also rotate synchronously, and finally the chain is used to pull the step-by-step lifting platform 5024 up and down. This component realizes stable lifting movement under large load through a precise gear-chain composite transmission system, so that the aluminum material can be neatly stored.

[0106] A first pulley 5025 and a second pulley 5026 are provided on both sides of the step-by-step lifting platform 5024. The first pulley 5025 is provided in the middle of the double track 5022, and rolls and slides on the inner side of the double track 5022, and the second pulley 5026 rolls and slides on the inner wall of the storage lifting base 5021 in the gap between the double track 5022; by providing the first pulley 5025 and the second pulley 5026, the step-by-step lifting platform 5024 can be lifted and lowered in the storage lifting support part 502 while its four directions of front, back, left and right are restricted, so that the step-by-step lifting platform 5024 will not shake during the lifting process, thereby ensuring the stability of the lifting and lowering of the step-by-step lifting platform 5024, thereby realizing the neatness of aluminum storage.

[0107] The step-by-step lifting platform 5024 is provided with a fork holding rail 5027 and a fork holding cylinder 5028. The fork holding rail 5027 is slidably connected to the fork holding rod 5029, and the fork holding cylinder 5028 is connected to the fork holding rod 5029. The storage transfer vehicle 6 includes a transfer carriage 601, and carriage sockets 6015 are provided on both sides of the transfer carriage 601. When the empty transfer carriage 601 is moved to the transfer vehicle slide 503, the fork holding cylinder 5028 pushes the fork holding rod 5029 to insert it into the carriage socket 6015, and then the step-by-step lifting platform 5024 can drive the storage transfer vehicle 6 to rise and fall. When the storage transfer vehicle 6 is full of aluminum materials, the fork holding rod 5029 is pulled out from the carriage entrance socket 6015, and the storage transfer vehicle 6 can be pulled away.

[0108] The storage transfer vehicle 6 includes a transfer compartment 601, and an inverted V seat 6011 is provided inside the transfer compartment 601. The inverted V seat 6011 can adapt to the V-shaped angle of the aluminum material, so that the aluminum material can be stably stored in the inverted V seat 6011. The inverted V seat 6011 is provided with a limited adjustment column 603 on both sides of the sliding; the inverted V seat 6011 is provided with a V seat transverse groove 6012, and the bottom of the transfer compartment 601 is provided with a compartment bottom transverse groove 6013. The projection area of the V seat transverse groove 6012 covers The bottom transverse groove 6013 of the cover compartment is provided, and the limit adjustment long column 603 is slidably inserted into the V-seat transverse groove 6012. The bottom of the limit adjustment long column 603 is provided with a first clamping plate 6031 and a second clamping plate 6032. The bottom plate of the transfer compartment 601 is clamped between the first clamping plate 6031 and the second clamping plate 6032. The limit adjustment long column 603 is adjusted by the first clamping plate 6031, the second clamping plate 6032, the V-seat transverse groove 6012 and the aluminum limit adjustment connecting seat 602. The restriction allows the limit adjustment long column 603 to stand upright in the transfer carriage 601, and the transfer carriage 601 is rotatably connected to a width adjustment bolt 604, one end of the width adjustment bolt 604 is connected to the width adjustment handle 6041, the width adjustment bolt 604 is threadedly connected to the aluminum limit adjustment connecting seat 602, and the aluminum limit adjustment connecting seat 602 is connected to the limit adjustment long column 603; therefore, by rotating the width adjustment handle 6041, the gap between the two limit adjustment long columns 603 can be adjusted, thereby limiting the two sides of the stacked aluminum materials, so that the aluminum materials can be stably stored in the transfer carriage 601, and the transfer carriage 601 perfectly solves the problem of fixing the aluminum materials during storage through the innovative inverted V seat 6011 positioning combined with the adjustable limit adjustment long column 603. Its modular design can easily adapt to the storage and transfer needs of materials of different specifications, while ensuring transportation safety and greatly improving loading and unloading efficiency.

[0109] A door panel clamping column 6014 is provided on one side of the transfer carriage 601, and the door panel clamping column 6014 is detachably connected to the end door panel 605. The end door panel 605 is provided with a first clamping slot 6051 and a second clamping slot 6052 that are in communication. The inner diameter of the second clamping slot 6052 is larger than the inner diameter of the first clamping slot 6051. The door panel clamping column 6014 includes a large cylinder and a small cylinder connected together, and the small cylinder is fixedly connected to the transfer carriage 601; the end door panel 605 is also provided with a door handle 6053; the lower end of the transfer carriage 601 is connected to the caster 606, which is installed When installing the end door panel 605, you only need to align the second slot 6052 with the large cylinder and push it in, and then put down the end door panel 605, so that the first slot 6051 can be stuck on the small cylinder. At this time, the end door panel 605 will not fall out due to the restriction of the large cylinder. The end door panel 605 can prevent the aluminum from sliding out of the transfer carriage 601, ensuring the safety of the aluminum transportation process. The double-stage slot design not only ensures the convenience of operation, but also ensures the safety of the transportation process. It is particularly suitable for aluminum transfer operations under high-frequency and high-intensity working conditions.

[0110] During operation, the unlabeled aluminum materials are first manually input into the film laminating component 1 and the labeling component 2, and the film laminating component 1 and the labeling component 2 simultaneously apply film and label to the aluminum materials, and then pass through the transition conveying component 4, and use the transition conveying component 4 to flip the angle of the aluminum materials to facilitate the subsequent orderly stacking of the aluminum materials, and the aluminum materials are placed in order in the storage transfer vehicle 6 of the storage lifting component 5 through the pushing component. After the storage transfer vehicle 6 has completed storing a vehicle of aluminum materials, it withdraws from the storage lifting component 5 and transports the aluminum materials to the next process.

[0111] Among them, the film-sticking component 1 and the labeling component 2 are used to simultaneously stick film and label the aluminum material. The film-sticking component sticks film on the side of the aluminum material, and the labeling component sticks labels on the upward side of the aluminum material. The film-sticking component and the labeling component operate synchronously to improve the efficiency of film-sticking and labeling.

[0112] The film laminating assembly 1 is equipped with a film rack 101 to mount the film roll. The film strip is pulled out and passed through the film strip limiting component 102 before being attached to the side of the aluminum material. The aluminum material upper limit block 103, film strip side pressure blocks 104, and aluminum material side pressure rollers 106 ensure stable film lamination. The film strip cutting motor 105 cuts the film strip when the aluminum material reaches the set length.

[0113] The labeling component 2 adjusts the label attachment position through the labeling lifting component 201 and the lateral adjustment rod 2014. The label strip is pulled out from the label rack 203, and is attached to the aluminum material after pulling the spring component 204, the first transition shaft 2022, the second transition shaft 2023, the conveying shaft component 206 and the label output component 207. The label waste paper is recycled.

[0114] The turning base 4011 of the transition conveying assembly 4 turns the aluminum material over so that the tip of the intersection of the two surfaces of the aluminum material faces downward, and then continues to convey it.

[0115] The storage lifting assembly 5 clamps the storage transfer vehicle 6 so that it can be gradually raised and lowered. As the aluminum materials are placed into the storage transfer vehicle 6 one by one, the storage transfer vehicle 6 gradually descends.

[0116] After the storage transfer vehicle 6 is filled with aluminum materials, it is removed from the storage lifting assembly and transferred to the next process. At the same time, an empty storage transfer vehicle 6 is replaced to achieve continuous production.

[0117] The automated aluminum film and labeling device of the present invention utilizes a film and labeling assembly to simultaneously apply film and labeling to aluminum, thereby saving the transportation time of the aluminum and eliminating the operator's transportation operations. This improves the efficiency of film and labeling and reduces labor intensity. The transition conveyor assembly rotates the filmed and labeled aluminum into an inverted V shape, improving the structural stability of the stacked aluminum, reducing the storage space occupied by the aluminum, avoiding direct contact between right-angled aluminum materials, reducing the risk of surface scratches, and ensuring the quality of the aluminum. The storage lifting assembly and storage transfer cart allow the aluminum to be neatly stored, facilitating transportation and subsequent packaging. Replacing the storage transfer cart enables continuous production, and the modular transfer cart design supports rapid line changeovers and adapts to flexible production needs.

[0118] Finally, it should be noted that the above are only 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 embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or make equivalent replacements for some of the technical features therein. However, any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. An automatic film and labeling device for aluminum materials, characterized in that: It comprises a film sticking component (1), a labeling component (2), a transition conveying component (4), and a storage lifting component (5), and a storage transfer vehicle (6) is provided below the storage lifting component (5); The film-sticking assembly (1) and the labeling assembly (2) are used to stick films and labels to the long strip of aluminum. The cross section of the long strip of aluminum is a right-angled shape with two sides perpendicular to each other. When the aluminum is labeled and stuck with films, one plane of the aluminum is parallel to the ground to form an L shape. After the labeling and sticking are completed, the aluminum is transported to the transition conveying assembly (4). The transition conveying assembly (4) is provided with a flip seat (4015). The flip seat (4015) flips the aluminum so that the tip of the intersection of the two sides of the aluminum faces downward, and then transports it to the storage lifting assembly (5). The storage lifting assembly (5) clamps the storage transfer vehicle (6) so that it can be gradually lifted and lowered. As the aluminum is placed in the storage transfer vehicle (6) one by one, the storage transfer vehicle (6) gradually descends. After the storage transfer vehicle (6) is full of aluminum, it is removed from the storage lifting assembly (5) and the aluminum is transported to the next process. An aluminum material conveying assembly (3) is further provided on one side of the film laminating assembly (1) and the labeling assembly (2). Aluminum material is input from one end of the aluminum material conveying assembly (3). The film laminating assembly (1) applies film to the side of the aluminum material, and the labeling assembly (2) applies label to the upward side of the aluminum material. The aluminum material conveying assembly (3) includes a conveying motor (301), which transmits power to a conveying driving wheel (302) via a transmission gear. A conveying driven wheel (304) is provided above the conveying driving wheel (302), and the conveying driven wheel (304) is connected to a driven wheel spring seat (303). The driven wheel spring seat (303) uses the elastic force of a spring to squeeze the conveying driven wheel (304) toward the conveying driving wheel (302). The plane of the aluminum material parallel to the ground is clamped between the conveying driving wheel (302) and the conveying driven wheel (304). The rotation of the conveying driving wheel (302) pushes the aluminum material to move. The film sticking assembly (1) comprises a film frame (101), and the film frame (101) is used for mounting a film roll; A film strip limiting component (102) is provided on one side of the film frame (101), and the film strip limiting component (102) is provided with two film strip limiting blocks for limiting the left and right positions of the film strip. After the film strip of the film roll is pulled out, it passes through the film strip limiting component (102) and is attached to the side of the aluminum material. As the aluminum material is pushed forward by the aluminum material conveying assembly (3), the film strip is also pulled out and attached to the side of the aluminum material; The film laminating assembly (1) comprises an aluminum upper limit pressing block (103), a film strip side pressing block (104) and an aluminum side pressing roller (106), wherein the aluminum upper limit pressing block (103) is used to press against the upper end surface of the aluminum material, and the film strip side pressing block (104) is used to press against the aluminum material and the side surface of the laminating film; the aluminum side pressing roller (106) is used to press against the side surface of the aluminum material during the conveying process of the aluminum material; The aluminum upper limit pressing block (103) and the membrane strip side pressing block (104) are both roller bodies made of sponge; The film sticking assembly (1) comprises a film strip cutting motor (105), the film strip cutting motor (105) is connected to a film strip cutter (1051), and the film strip cutter (1051) is used to cut the film strips connected between each two sections of aluminum material.

2. The automatic film and labeling device for aluminum materials according to claim 1 is characterized in that: The labeling assembly (2) comprises a labeling lifting component (201), the labeling lifting component (201) comprises a lifting rod (2011) and a lifting screw (2012), the lifting rod (2011) is slidably connected to a lifting block (2013), and the lifting screw (2012) is threadedly connected to the lifting block (2013); The lifting block (213) is connected to the transverse adjustment rod (2014); the lifting block (2013) is provided with an open circular groove; the transverse adjustment rod (2014) is inserted into the open circular groove; the open circular groove clamps the transverse adjustment rod (2014) by tightening a bolt on one side of the open circular groove; a first limiting clip (20131) is further provided in the open circular groove; the transverse adjustment rod (2014) is provided with a limiting clip (20141); the first limiting clip (20131) is inserted into the limiting clip (20141); One end of the transverse adjustment rod (2014) is rotatably connected to a transverse adjustment handle (2016), the transverse adjustment handle (2016) is connected to a transverse screw rod (2015), and the transverse screw rod (2015) is arranged in the transverse adjustment rod (2014); the transverse screw rod (2015) is threadedly connected to the labeling nut block; the outer side of the labeling nut block is connected to the sliding block (221), the sliding block (221) is clamped in the labeling base plate (202), and the transverse adjustment rod (2014) is slidably connected to the sliding block (2021).

3. The automatic film and labeling device for aluminum materials according to claim 2, characterized in that: The labeling base plate (202) is connected to the label rack (203), the first transition shaft (2022), the second transition shaft (2023), the conveying shaft component (206), the label output component (207), and the label waste paper recovery rack (208); The label rack (203) is used to hang a whole roll of labels. After the label strip is pulled out from the rolled label roll, it passes through the pulling spring component (204), then passes through the first transition shaft (2022) and the second transition shaft (2023), enters the conveying shaft component (206), and then passes around the label output component (207). After the label is attached to the aluminum material, the label waste paper passes through the conveying shaft component (206) and finally passes around the label waste paper recycling rack (208) for recycling; The conveying shaft component (206) is connected to the power component (205).

4. The automatic film and labeling device for aluminum materials according to claim 3 is characterized in that: The conveying rotating shaft component (206) includes a conveying main shaft (2061), and a sixth transition shaft (2066), a fifth transition shaft (2065) and a first linkage clamping shaft (2062) are respectively provided on both sides above the conveying main shaft (2061). The first linkage clamping shaft (2062) is connected to the first interference clamping shaft (20621). Both ends of the first interference clamping shaft (20621) are rotatably connected to the first long plate. Both ends of the first linkage clamping shaft (2062) are also rotatably connected to the first long plate. The first linkage clamping shaft (2062) is connected to the labeling base plate (202). The first interference clamping shaft (20621) rotates around the first long plate as a radius and the first linkage clamping shaft (2062) as a center. Before installing the label strip, the first interference fit card shaft (20621) is placed on the conveying main shaft (2061) and only relies on gravity to droop. After the label strip passes between the conveying main shaft (2061) and the first interference fit card shaft (20621), the first interference fit card shaft (20621) is manually pressed downward so that the first interference fit card shaft (20621) and the conveying main shaft (2061) are in interference contact with each other, so that the label strip can be clamped and conveyed. A third transition shaft (2063), a fourth transition shaft (2064) and a second linkage clamping shaft (2067) are respectively provided on both sides below the conveying main shaft (2061); The two ends of the second linkage clamping shaft (2067) are rotatably connected to the second long plate, and the two ends of the second interference clamping shaft (20671) are also rotatably connected to the second long plate. The second linkage clamping shaft (2067) is connected to the labeling base plate (202), and the second interference clamping shaft (20671) rotates around the second linkage clamping shaft (2067) with the second long plate as the radius. Before installing the label waste paper, first pass the label waste paper between the conveying main shaft (2061) and the second interference clamping shaft (20671), and then manually squeeze the second interference clamping shaft (20671) upwards so that the second interference clamping shaft (20671) and the conveying main shaft (2061) are in interference with each other, so that the label waste paper can be clamped and conveyed; The power component (205) comprises a label output motor (2051), the label output motor (2051) is connected to a main shaft pulley (2052) via a belt, the main shaft pulley (2052) is connected to a recovery pulley (2053) via a belt, the main shaft pulley (2052) is connected to a conveying main shaft (2061), and the recovery pulley (2053) is connected to a label waste paper recovery rack (208).

5. The automatic film and labeling device for aluminum materials according to any one of claims 1 to 4, characterized in that: The transition conveying assembly (4) comprises a plurality of angle turning components (401) and a conveying roller component (402) arranged at intervals, and a pushing component (403) is provided at one end of the transition conveying assembly (4); The angle flip component (401) comprises a flip base (4011), one end of the flip base (4011) is connected to a flip connecting rod (4013), and the other end is connected to a flip cylinder (4016). A flip slide rail (4012) is provided in the middle of the flip base (4011), and the flip slide rail (4012) is slidably connected to a flip slider (4014). The internal shape of the flip seat (4015) matches the external shape of the aluminum material. The flip seat (4015) is composed of two vertical surfaces. The intersection of the vertical surfaces of the flip seat (4015) is rotatably connected to the flip slider (4014), and the end of one of the vertical surfaces of the flip seat (4015) is rotatably connected to the flip connecting rod (4013). The flip slider (4014) is connected to the flip cylinder (4016); The pushing component (403) comprises a propulsion cylinder (4031), the propulsion cylinder (4031) is connected to a push lifting cylinder (4032), and the push lifting cylinder (4032) is connected to a push block (4033); the pushing component (403) is used to push the end of the aluminum material, and push the aluminum material from the transition conveying assembly (4) to the storage transfer vehicle (6).

6. The automatic film and labeling device for aluminum materials according to any one of claims 1 to 4, characterized in that: The storage lifting assembly (5) comprises a storage lifting power component (501), storage lifting support parts (502) are provided on both sides of the storage lifting power component (501), and a transfer vehicle slide (503) is provided in the middle of the storage lifting support parts (502); The storage and lifting power component (501) comprises a storage and lifting motor (5011), a driving rotating shaft (5013), a driven rotating shaft (5014), and a first lifting transmission shaft (5015) and a second lifting transmission shaft (5016) located on both sides of the storage and lifting power component (501); the storage and lifting motor (5011) is connected to the first sprocket (5012); the middle portion of the driving rotating shaft (5013) is connected to the driving gear (50131); one end of the driving rotating shaft (5013) is connected to the second sprocket (50132), and the other end is connected to the third sprocket (50133); The middle portion of the passive rotating shaft (5014) is connected to the passive gear (50141), and one end of the passive rotating shaft (5014) is connected to the fourth sprocket (50142); The middle portion of the first lifting transmission shaft (5015) is connected to the first lifting sprocket, and both ends are connected to the fifth sprocket (50151); The middle portion of the second lifting transmission shaft (5016) is connected to the second lifting sprocket, and both ends are connected to the sixth sprocket (50161); The first sprocket (5012) is connected to the third sprocket (50133) via a chain; The driving gear (50131) is meshedly connected with the driven gear (50141); The fourth sprocket (50142) is connected to the second lifting sprocket via a chain; The second sprocket (50132) is connected to the first lifting sprocket via a chain.

7. The automatic film and labeling device for aluminum materials according to claim 6, characterized in that: The storage lifting support portion (502) comprises a storage lifting base frame (5021), two tracks (5022) are provided on both sides of the storage lifting base frame (5021), a step-by-step lifting platform (5024) is slidably connected to the two tracks (5022), and the step-by-step lifting platform (5024) is connected to the seventh sprocket (5023); A first pulley (5025) and a second pulley (5026) are provided on both sides of the step-by-step lifting platform (5024); the first pulley (5025) is provided in the middle of the double track (5022) and rolls and slides on the inner side of the double track (5022); the second pulley (5026) rolls and slides on the inner wall of the storage lifting base (5021) in the gap between the double track (5022); The step-by-step lifting platform (5024) is provided with a fork holding rail (5027) and a fork holding cylinder (5028); the fork holding rail (5027) is slidably connected to a fork holding rod (5029); and the fork holding cylinder (5028) is connected to the fork holding rod (5029).

8. The automatic film and labeling device for aluminum materials according to claim 7, characterized in that: The storage transfer vehicle (6) comprises a transfer compartment (601), an inverted V seat (6011) is provided inside the transfer compartment (601), and limited position adjustment long columns (603) are slidably provided on both sides of the inverted V seat (6011); The inverted V-seat (6011) is provided with a V-seat transverse groove (6012), the bottom of the transfer carriage (601) is provided with a carriage bottom transverse groove (6013), the projection area of the V-seat transverse groove (6012) covers the carriage bottom transverse groove (6013), the position-limiting adjustment column (603) is slidably inserted into the V-seat transverse groove (6012), the bottom of the position-limiting adjustment column (603) is provided with a first clamping plate (6031) and a second clamping plate (6032), and the bottom plate of the transfer carriage (601) is clamped between the first clamping plate (6031) and the second clamping plate (6032); The transfer carriage (601) is rotatably connected to a width adjustment bolt (604), one end of which is connected to a width adjustment handle (6041), the width adjustment bolt (604) is threadedly connected to an aluminum limit adjustment connection seat (602), and the aluminum limit adjustment connection seat (602) is connected to a limit adjustment long column (603); A door panel clamping column (6014) is provided on one side of the transfer carriage (601), and the door panel clamping column (6014) is detachably connected to the end door panel (605). The end door panel (605) is provided with a first clamping slot (6051) and a second clamping slot (6052) that are in communication with each other. The inner diameter of the second clamping slot (6052) is larger than the inner diameter of the first clamping slot (6051). The door panel clamping column (6014) includes a large cylinder and a small cylinder that are connected together. The small cylinder is fixedly connected to the transfer carriage (601). The end door panel (605) is also provided with a door handle (6053). The lower end of the transfer carriage (601) is connected to a caster (606).

Images