Wind chime pipe assembling machine
By designing a wind chime pipe assembly machine that includes pipe feeding, conveying, snap feeding and pressing mechanism, fully automated snap assembly is realized, solving the problems of cumbersome and low efficiency of existing equipment, and improving the production efficiency of the equipment and the firmness of the wind chime pipe.
Patent Information
- Application Number
- CN202510565737.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-30
- Publication Date
- 2025-07-04
AI Technical Summary
The existing wind chime pipe assembly equipment has cumbersome processes, low working efficiency and high failure rate, and requires an assembly machine with simple processes, high efficiency and low failure rate.
A wind chime pipe assembly machine is designed, including a pipe body feeding mechanism, a conveying mechanism, a snap feeding mechanism and a pressing mechanism. The snap is assembled into the wind chime pipe through a fully automatic manner, omitting the inner trench excavation and spring mechanism, and realizing the assembly in one process.
The assembly process is simplified, the failure rate is reduced, the production efficiency is improved, and the wind chime tubes are made are more solid.
Smart Images

Figure CN120244561A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of wind chime processing equipment, and in particular relates to a wind chime pipe assembly machine. Background Art
[0002] Wind chimes are objects that can make sounds when the wind blows, and are mostly used as ornaments. They can make sounds through the collision of various bells or other objects when the wind blows. There are many types of wind chimes, such as Japanese wind chimes, octagonal wind chimes, etc. Wind chimes have both visual beauty and pleasant auditory enjoyment.
[0003] Wind chimes are generally composed of several wind chime tubes suspended on connectors by ropes. At present, the wind chime tubes on the market are usually drilled with holes to insert the pins for tying the ropes, or directly install plastic air eyes at the holes, and connect the ropes to the plastic air eyes. However, drilling holes will leave marks on the outer wall of the wind chime tube, destroying the overall appearance of the outer wall of the wind chime tube and affecting the aesthetics. After drilling the holes, the edges of the holes need to be polished, which is time-consuming and labor-intensive. In the bolt-type wind chime, the rope will be displaced on the bolt, which will affect the tone of the wind chime, and the bolt is easy to fall off during the shaking of the wind chime, posing a safety hazard.
[0004] To solve the above problems, a device for making a new type of wind chime tube has appeared on the market. The patent number of the device is CN202210432516.8, and the name is a Chinese invention patent of an assembly machine for installing a retaining spring in a wind chime tube. It discloses an assembly machine for installing a retaining spring in a wind chime tube, which includes a frame and a loading mechanism, a conveying mechanism, an inner groove digging mechanism, a spring loading mechanism and a discharging mechanism installed on the frame. The conveying mechanism is used to transport the wind chime tube from the loading structure to the discharging mechanism. The inner groove digging mechanism and the spring loading mechanism are sequentially arranged on the conveying stroke of the wind chime tube. The inner groove digging mechanism includes a groove cutter control pushing device, a groove positioning device and a three-jaw chuck. The spring loading device includes a vibration disk, a retaining spring tube assembly, a retaining spring grabbing and pushing device, a flipping auxiliary device and a driving device. However, in the above scheme, it is necessary to first groove the inner wall of the wind chime tube through the inner groove digging mechanism, and then push the retaining ring into the hook groove. This method is not only cumbersome and inefficient, but also requires more components and has a relatively high failure rate. Therefore, a wind chime tube assembly machine with simple procedures, high work efficiency and low failure rate is needed. Summary of the invention
[0005] The purpose of the present invention is to provide a wind chime tube assembly machine to solve the above technical problems.
[0006] To achieve the above object, the technical solution adopted by the present invention is as follows: A wind chime tube assembling machine, including a frame, on which a tube feeding mechanism, a conveying mechanism, a buckle feeding mechanism, a pressing-in mechanism and a discharging mechanism are installed;
[0007] The tube feeding mechanism is installed at the initial end of the frame and is used for storing and feeding the wind chime tubes;
[0008] The conveying mechanism is used to receive the wind chime tubes output from the tube feeding mechanism and convey the wind chime tubes to the discharging mechanism. During the conveying process of the wind chime tubes, they will pass between the buckle feeding mechanism and the pressing-in mechanism;
[0009] The buckle feeding mechanism includes:
[0010] A vibrating bowl, which is used for storing and outputting the buckles;
[0011] A buckle pushing device, which is used to push the buckle into and snap it into the wind chime tube;
[0012] A buckle gripping device, which is used to grip the buckle from the discharge chute of the vibrating bowl and place it at the pushing end of the buckle pushing device;
[0013] The pressing-in mechanism and the buckle pushing device are arranged opposite to each other. The pressing-in mechanism extends from the pipe orifice of the wind chime tube far from the buckle pushing device to abut and limit the buckle;
[0014] The discharging mechanism is used to output the wind chime tubes with the buckles assembled.
[0015] Further, the tube feeding mechanism includes a feeding rack, a lifting device, a material distributing device and a tube gripping device;
[0016] The feeding rack is used for storing the wind chime tube bodies;
[0017] The lifting device includes a mounting rack and a plurality of movable ejector rods arranged longitudinally offset and transversely side by side on the mounting rack, a lifting cylinder for driving all the movable ejector rods to move up and down synchronously, and an obliquely arranged guide plate for the wind chime tubes to slide down;
[0018] The material distributing device includes a material distributing plate for conveying the wind chime tubes to below the tube gripping device and a top material module for pushing the wind chime tubes upward;
[0019] The tube gripping device includes a manipulator module and a linear driving module for driving the manipulator module to move. The driving manipulator module is used to grip and move the wind chime tubes located on the material distributing plate to the conveying mechanism.
[0020] Further, the conveying mechanism includes at least two sprocket assemblies arranged along the conveying direction of the wind chime tube and running synchronously, a sprocket drive motor for driving the sprocket assemblies to work, and tube seats evenly spaced and installed on the chains of the sprocket assemblies. The tube seats on different sprocket assemblies are respectively in one-to-one position correspondence along the axial direction of the wind chime tube, and are jointly used to support and place the wind chime tube.
[0021] Further, the buckle pushing device includes a pedestal arranged on one side of the sprocket assembly and a buckle pushing module installed on the pedestal. A push rod seat is provided on the pushing end of the buckle pushing module, and a push rod corresponding to the tube seat is provided on the push rod seat. A buckle placement rack is further provided on the pedestal, and the buckle placement rack is located at the front end of the buckle pushing module. A buckle fixture is provided on the buckle placement rack, and a guide groove is provided on the buckle fixture. The guide groove is correspondingly arranged with the push rod, and the guide groove is used for the placement of the buckle and the pushing of the push rod.
[0022] Further, the buckle grasping device includes a material taking rack, a slide rail is provided on the material taking rack, a driving block is provided on the slide rail, a first pushing cylinder for driving the driving block to move left and right is provided on one side of the material taking rack, a second pushing cylinder is provided on the driving block, a connecting plate is provided on the pushing end of the second pushing cylinder, a rotating cylinder is installed on the connecting plate, and a flipping material taking mechanism is provided on the rotating end of the rotating cylinder. The second pushing cylinder controls the up and down movement of the flipping material taking mechanism, and the rotating cylinder controls the flipping material taking mechanism to rotate to the discharge chute of the vibrating disk for material taking. The flipping material taking mechanism is a rotating clamping finger cylinder for adjusting the direction of the buckle.
[0023] Further, the pressing-in mechanism includes a material ejecting module, a module frame and a guiding and positioning mechanism;
[0024] The module frame is installed on the frame for fixing the material ejecting module;
[0025] A ejector rod seat is provided on the driving end of the material ejecting module, an ejector rod is installed on the ejector rod seat, the ejector rod is arranged opposite to the push rod, and the ejector rod can extend into the wind chime tube for abutting and limiting the buckle;
[0026] The guiding and positioning mechanism includes a positioning frame arranged at the front end of the material ejecting module. A bearing follower is installed on the positioning frame, and the bearing follower is used to fit the outer wall of the wind chime tube for easy conveying. A positioning cylinder is installed on the top of the positioning frame, a pressing plate is provided on the driving end of the positioning cylinder, a positioning module is provided on one side of the positioning frame, and a positioning support for placing the wind chime tube is provided on the positioning module. The positioning module is used to adjust the up and down position of the positioning support to lift the tube orifice upward and expose it, so as to facilitate the push rod to push the buckle into the tube body.
[0027] Further, a guiding device is provided at the discharge chute of the vibrating disk. The guiding device includes a discharge rack, a separating cylinder, and a guiding device, which are installed at the discharge chute of the vibrating disk;
[0028] The discharge rack is installed on the frame. An avoidance groove is formed at the top of the discharge rack. Top blocks are formed on both sides of the avoidance groove. Clamping blocks are provided at the tops of the top blocks. A storage position for buckling placement is formed between the two clamping blocks;
[0029] The separating cylinder is installed at the top of the discharge rack through an extension plate and is located above the discharge chute of the vibrating disk. A separating block is provided at the driving end of the separating cylinder. The separating cylinder is used to control the separating block to isolate the discharge chute;
[0030] The guiding device includes a guiding cylinder provided on one side of the discharge rack. A guiding block is provided at the driving end of the guiding cylinder. A grasping groove corresponding to the avoidance groove is formed on the guiding block. The grasping groove is used to guide the grasping part of the flipping and picking mechanism to the lower part of the buckle;
[0031] It further includes a sensor, which is installed on both sides of the discharge rack and is used to sense the position of the buckle to control the buckle grasping device.
[0032] Further, the discharging mechanism includes a finished product picking rack provided at the end of the frame, a linear driving module provided on the finished product picking rack, and a material bin. The finished product picking rack is used to fixedly install the linear driving module;
[0033] A driving end that can move left and right under the control of a cylinder is provided on the linear driving module. An unloading cylinder rack is provided on the driving end;
[0034] A finished product unloading cylinder is provided on the unloading cylinder rack. A pushing plate is provided at the pushing end of the finished product unloading cylinder. A material unloading grasping cylinder is provided on each side of the pushing plate. A clamp for grasping the wind chime tube is provided at the driving end of the material unloading grasping cylinder;
[0035] The material bin is used to store the wind chime tubes assembled with buckles. The material unloading grasping cylinder is used to grasp the wind chime tubes into the material bin.
[0036] Further, an adjusting frame is provided on the frame. The adjusting frame is movable on the frame through a driving mechanism. The first transmission group and the second transmission group of the sprocket assembly are oppositely arranged. The second transmission group is installed on the adjusting frame. The distance between the first transmission group and the second transmission group is controlled through the adjusting frame. A first limiting plate and a second limiting plate are further provided on the adjusting frame. The second limiting plate extends into the feeding rack and is fixed through a fastener.
[0037] Further, the driving mechanism includes an adjusting frame driving module and a sliding component. The driving cylinder is installed on the machine frame. The pushing end of the adjusting frame driving module is fixedly connected to one end of the adjusting frame. The sliding component includes a guide rail provided on the machine frame and a slider installed below the adjusting frame. The adjusting frame is slidably connected through the cooperation of the guide rail and the slider.
[0038] Through the above technical solution, compared with the prior art, the present invention has the following beneficial effects: A wind chime tube assembling machine is composed of a tube body feeding mechanism, a conveying mechanism, a buckle feeding mechanism, a pressing-in mechanism and a discharging mechanism. The tube body feeding mechanism is installed at the initial end of the machine frame, and includes a feeding rack for storing the wind chime tube bodies, a lifting device for sequentially pushing out the wind chime tubes in the feeding rack, a material distributing device for receiving the wind chime tubes at the lifting device and conveying them to the lower part of the tube body gripping device, and a tube body gripping device for gripping and placing the wind chime tubes separated by the material distributing device on the conveying mechanism. The conveying mechanism includes two groups of oppositely arranged sprocket assemblies, which are driven by a sprocket driving motor. There are tube seats on the chains of the sprocket assemblies, and the tube seats on the two chains correspond to each other. After the tube body gripping device grabs the wind chime tube body from the material distributing device and places it on the tube seat, the wind chime tube body located on the tube seat will move to between the buckle feeding mechanism and the pressing-in mechanism along with the transmission direction of the chain. The buckle feeding mechanism includes a vibrating plate, a buckle pushing module and a buckle gripping device. The vibrating plate is used for storing and conveying the buckles. The buckle gripping device is used for clamping and placing the buckles in the output groove of the vibrating plate at the pushing end of the buckle pushing module. The buckle pushing module pushes the buckles in front of its pushing end into the tube body of the wind chime tube. The pressing-in mechanism plays a role in limiting and abutting against the buckles.
[0039] Among them, the ejector rod in the pressing-in mechanism and the push rod in the buckle pushing module are oppositely arranged. When the tube seat with the wind chime tube body moves to between the buckle pushing module and the pressing-in mechanism, the ejecting module in the pressing-in mechanism will be started. The ejector rod on the ejecting module moves forward and extends into the tube body. After the ejector rod is in place, the buckle gripping device grabs the buckles at the output groove of the vibrating plate and places them on the buckle fixture.
[0040] When the sensor at the buckle fixture senses the buckle, the buckle pushing module is activated. The push rod in the buckle pushing module drives the buckle to move forward and enter the tube body. The buckle that has just entered the tube body does not contact the inner wall of the tube body. When the push rod pushes the buckle until it abuts against the ejector rod, it will continue to exert pressure on the buckle. At this time, the two sides of the buckle that were originally bent will expand outwards until they abut against the inner wall of the tube body to form a clamped state, realizing the fixed installation of the tube body and the buckle. After the buckle is installed in place, the ejector rod and the push rod withdraw from the tube body in sequence. Then, the sprocket assembly drives the assembled wind chime tube to continue moving to the discharging mechanism. The blanking and grasping cylinder in the discharging mechanism grabs the wind chime tube on the tube seat and puts it into the bin to complete the entire composition process of the wind chime tube.
[0041] The above technical solution assembles the buckle into the wind chime tube in a fully automatic manner, saving the existing multiple assembly processes to one process. At the same time, there is no need to use an inner groove digging mechanism and a spring loading mechanism, streamlining the entire installation process, reducing the overall failure rate, thereby increasing the production efficiency of the equipment. Moreover, the produced wind chime tube has higher firmness, solving the technical problems of the existing wind chime tube assembly equipment, such as cumbersome processes, low work efficiency, a large number of required components, and high failure rates. Brief Description of the Drawings
[0042] In order to more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the following drawings are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on the structures shown in these drawings.
[0043] Figure 1 It is a schematic diagram of the overall structure of the present invention;
[0044] Figure 2 It is a schematic diagram of the internal structure of the present invention;
[0045] Figure 3 It is a schematic diagram of the structure of the first perspective of the surface of the frame of the present invention;
[0046] Figure 4 It is a schematic diagram of the structure of the second perspective of the surface of the frame of the present invention;
[0047] Figure 5 It is a schematic diagram of the top view of the surface of the frame of the present invention;
[0048] Figure 6 It is a schematic diagram of the structure of the material lifting device of the present invention;
[0049] Figure 7 It is a schematic diagram of the structure of the material distributing device and the tube body grasping device of the present invention;
[0050] Figure 8 Structural schematic diagram of the pressing mechanism of the present invention;
[0051] Figure 9 Structural schematic diagram of the buckle feeding mechanism of the present invention;
[0052] Figure 10 Partial enlarged structural schematic diagram of the buckle feeding mechanism of the present invention;
[0053] Figure 11 For the present invention Figure 4 Partial enlarged structural schematic diagram at position A;
[0054] Figure 12 For the present invention Figure 4 Partial enlarged structural schematic diagram at position B;
[0055] The invention reference information is as follows:
[0056] 1. Frame; 2. Vibration bowl; 3. Buckle pushing device; 4. Buckle grasping device; 5. Loading rack; 6. Lifting device; 7. Dividing device; 8. Pipe body grasping device; 9. Sprocket assembly; 10. Pushing module; 11. Module rack; 12. Ejector rod seat; 13. Ejector rod; 14. Positioning rack; 15. Bearing follower; 16. Positioning cylinder; 17. Positioning module; 18. Positioning support; 20. Export device; 40. Adjusting rack; 100. Outer frame; 110. Main control device; 300. Finished product picking rack; 301. Pedestal; 302. Buckle pushing module; 303. Push rod seat; 304. Push rod; 305. Buckle placement rack; 306. Buckle fixture; 307. Guide groove; 401. Picking rack; 402. Slide rail; 403. First pushing cylinder; 404. Second pushing cylinder; 405. Connecting plate; 406. Rotary cylinder; 407. Inverted picking mechanism; 601. Mounting rack; 602. Movable ejector rod; 603. Lifting cylinder; 604. Guide plate; 605. Fixed plate; 606. Connecting plate; 607. Movable top plate; 608. Partition board; 701. Dividing plate; 702. Pushing block; 703. Pushing cylinder; 704. First dividing card slot; 705. Second dividing card slot; 801. Manipulator module; 802. Linear drive module; 803. Guide rail mounting plate; 804. First pipe body grasping drive cylinder; 805. Support frame; 806. Second pipe body grasping drive cylinder; 807. Third pipe body grasping drive cylinder; 808. Claw; 901. Sprocket drive motor; 902. Pipe seat; 2001. Discharge rack; 2002. Partitioning cylinder; 2003. Clamping block; 2004. Extension plate; 2005. Partitioning block; 2006. Feeding cylinder; 2007. Feeding block; 2008. Grasping slot; 3001. Linear drive module; 3002. Bin; 3003. Discharge cylinder rack; 3004. Discharging cylinder; 3005. Pushing plate; 3006. Discharging and grasping cylinder; 4001. First limit plate; 4002. Second limit plate; 4003. Adjusting rack drive module;
[0057] The realization, functional features and advantages of the object of the present invention will be further described with reference to the embodiments and the accompanying drawings. Detailed implementation manners
[0058] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying Figures 1-3 drawings. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. All other embodiments obtained by those of ordinary skill in the art based on the embodiments of the present invention without creative efforts shall fall within the protection scope of the present invention.
[0059] It should be noted that all directional indications (such as up, down, left, right, front, back...) in the embodiments of the present invention are only used to explain the relative positional relationship and movement conditions between components in a specific posture (as shown in the attached drawings). If the specific posture changes, the directional indications will also change accordingly.
[0060] In addition, the descriptions involving "first", "second", etc. in the present invention are only for descriptive purposes, and cannot be understood as indicating or implying their relative importance or implicitly specifying the quantity of the indicated technical features. Thus, the features defined with "first" and "second" may explicitly or implicitly include at least one such feature. In addition, the technical solutions between various embodiments can be combined with each other, but it must be based on the ability of those of ordinary skill in the art to implement. When the combination of technical solutions is contradictory or cannot be implemented, it should be considered that such a combination of technical solutions does not exist and is not within the protection scope required by the present invention.
[0061] As Figures 1-12 shown: A wind chime tube assembly machine includes a frame 1, on which a tube body feeding mechanism, a conveying mechanism, a buckle feeding mechanism, a pressing-in mechanism, and a discharging mechanism are installed. In this embodiment, an outer frame 100 is provided on the frame 1, and the outer frame 100 has a feeding port and a discharging port. The tube body feeding mechanism and the discharging mechanism are respectively arranged corresponding to the feeding port and the discharging port. A main control device 110 is provided on the outer frame 100, and the main control device 110 has a touch panel for human-machine interaction. The main control device 110 controls the tube body feeding mechanism, the conveying mechanism, the buckle feeding mechanism, the pressing-in mechanism, and the discharging mechanism through a PLC to realize the fully automated conveying of wind chime tubes and the positioning and installation of buckles, with a very high degree of automation.
[0062] The tube body feeding mechanism is installed at the initial end of the frame and is used for storing and feeding the wind chime tubes.
[0063] The conveying mechanism is used to receive the wind chime tubes output from the tube body feeding mechanism and convey the wind chime tubes to the discharging mechanism. During the conveying process of the wind chime tubes, they will pass between the buckle feeding mechanism and the pressing-in mechanism.
[0064] The buckle feeding mechanism includes:
[0065] A vibrating disk 2, which is used for storing and outputting buckles;
[0066] A buckle pushing device 3, which is used to push the buckle into and snap it into the wind chime tube;
[0067] A buckle grasping device 4, which is used to grasp the buckle from the discharging groove of the vibrating disk 2 and place it at the pushing end of the buckle pushing device 3;
[0068] The pressing mechanism and the buckle pushing device 3 are arranged opposite to each other. The pressing mechanism extends from the pipe orifice of the wind chime tube far away from the buckle pushing device 3 for abutting and limiting the buckle.
[0069] The discharging mechanism is used to output the wind chime tube with the assembled buckle.
[0070] As Figures 1-5 shown in the figure: The pipe body feeding mechanism includes a feeding rack 5, a lifting device 6, a material distributing device 7 and a pipe body grasping device 8;
[0071] The feeding rack 5 is used to store the pipe body of the wind chime tube; in this embodiment, the feeding rack 5 is installed on one side of the feeding port, and a support rack for supporting the feeding rack 5 is arranged below the feeding rack 5.
[0072] As Figure 6 shown in the figure: The lifting device 6 includes a mounting frame 601, a plurality of movable ejector rods 602 that are longitudinally offset and arranged side by side in the transverse direction and installed on the mounting frame 601, a lifting cylinder 603 for driving all the movable ejector rods 602 to move up and down synchronously, and an obliquely arranged guide plate 604 for the wind chime tube to slide down;
[0073] In this embodiment, the mounting frame 601 includes a fixed plate 605. The lifting cylinder 603 is installed at the lower end of the fixed plate 605. The upper end of the fixed plate 605 is connected with a connecting plate 606. A plurality of movable top plates 607 are fixedly arranged at the upper end of the connecting plate 606. A plurality of movable ejector rods 602 are all installed above the movable top plates 607. A partition plate 608 is arranged between the movable ejector rods 602. The upper end surfaces of the partition plate 608 and the movable ejector rods 602 are both inclined and smoothly transition with each other. The partition plate 608 is fixedly installed on the mounting frame 601.
[0074] The lifting cylinder 603 is fixed through the fixed plate 605 and is used to drive the connecting plate 606 to move up and down. When the connecting plate 606 moves upward, it will drive the movable top plate 607 to move upward, and then drive the movable ejector rod 602 to move upward. Since the upper end surfaces of the partition plate 608 and the movable ejector rod 602 are both inclined, the wind chime tube entering the upper end surface of the partition plate 608 will roll to the upper end surface of the movable ejector rod 602. The partition plate 608 is used for limiting. And when the movable ejector rod 602 moves upward to abut against the upper end surface of the next partition plate 608, the wind chime tube will continue to move and roll to the upper end surface of the next partition plate 608, and so on. Finally, the wind chime tube will be gradually conveyed close to the material distributing device 7.
[0075] The material distributing device 7 includes a material distributing plate 701 for conveying the wind chime tube below the pipe body grasping device 8 and a top material module for pushing the wind chime tube upward;
[0076] As Figure 7As shown in the figure: In this embodiment, the ejector module includes an ejector block 702 and an ejector cylinder 703. At the upper end of the material distribution plate 701, there are a first material distribution card slot 704 and a second material distribution card slot 705. After being guided by the guide plate 604, the wind chime tube will first be clamped in the first material distribution card slot 704. The ejector cylinder 703 drives the ejector block 702 to move upward, thereby pushing up the wind chime tube. At this time, the wind chime tube will cross the first material distribution card slot 704 and enter the second material distribution card slot 705. When the wind chime tube enters the second material distribution card slot 705, the tube body grasping device 8 will pick up the wind chime tube here. And the ejector module is fixedly installed on both sides in the conveying direction of the wind chime tube through the mounting seat. In this embodiment, a first sensor for triggering the ejector cylinder 703 is provided between the two first material distribution card slots 704, and a second sensor for triggering the tube body grasping device 8 is provided between the second material distribution card slots 705.
[0077] As Figure 7 shown: The tube body grasping device 8 includes a manipulator module 801 and a linear drive module 802 for driving the activity of the manipulator module 801. The driving manipulator module 801 is used to grasp and move the wind chime tube located on the material distribution plate 701 to the conveying mechanism. In this embodiment, the linear drive module 802 includes a guide rail mounting plate 803 and a first tube body grasping drive cylinder 804. A guide rail is provided on the guide rail mounting plate 803, and a slider is movably provided on the guide rail. A drive plate is installed on the slider. The first tube body grasping drive cylinder 804 is used to drive the drive plate to move on the guide rail.
[0078] The manipulator module 801 includes a support frame 805. The support frame 805 is installed on the drive plate. Above the support frame 805, a second tube body grasping drive cylinder 806 is installed. At least one third tube body grasping drive cylinder 807 is installed in the support frame 805. A clamping jaw 808 is provided at the lower end of the third tube body grasping drive cylinder 807. The third tube body grasping drive cylinder 807 is used to drive the clamping jaw 808 to work. The second tube body grasping drive cylinder 806 is used to drive the support frame 805 to move up and down, and finally convey the wind chime tube clamped by the clamping jaw 808 to the conveying mechanism.
[0079] It should be noted that the above-mentioned material distribution plate 701, guide rail mounting plate 803 and their corresponding structures are all symmetrically installed front and back to ensure that the wind chime tube can be displaced and conveyed smoothly.
[0080] Here, a feeding sensor is generally provided between the tube body grasping device 8 and the conveying mechanism. When the feeding sensor does not detect that a wind chime tube is placed on the conveying mechanism, it will automatically alarm. Generally, there is a problem in one of the processes of the tube body feeding mechanism, and the machine failure can be checked in time.
[0081] As Figures 3-5As shown in the figure: The conveying mechanism includes at least two sprocket assemblies 9 arranged along the conveying direction of the wind chime tube and running synchronously, a sprocket drive motor 901 for driving the sprocket assemblies 9 to work, and tube seats 902 evenly spaced and installed on the chains of the sprocket assemblies 9. The tube seats 902 on different sprocket assemblies 9 are respectively in one-to-one position correspondence along the axial direction of the wind chime tube, and are jointly used to support and place the wind chime tube.
[0082] Generally, the sprocket assembly 9 includes a driving sprocket and multiple driven sprockets. Among them, the driving sprocket is connected to the sprocket drive motor 901, and the driving sprocket and the driven sprockets are connected by a transmission rod. Generally, there are two groups of chains, which are symmetrically arranged front and back. All sprockets on the chains except the above-mentioned driving sprocket are driven sprockets. When one of the driving sprockets is driven to rotate by the sprocket drive motor 901, through the transmission of the transmission rod, it will drive the rotation of its corresponding driven sprocket 4, and the driven sprockets on the same chain as the driving sprocket will also rotate, and then drive the rotation of both chains. Moreover, the rotation of the two chains is synchronous. Furthermore, the tube seats 902 installed on the two chains will also be driven synchronously to ensure the stable and directional conveyance of the wind chime tube.
[0083] As Figures 9-10 shown in the figure: The buckle pushing device 3 includes a pedestal 301 arranged on one side of the sprocket assembly 9 and a buckle pushing module 302 installed on the pedestal 301. A push rod seat 303 is provided at the pushing end of the buckle pushing module 302, and a push rod 304 corresponding to the tube seat 902 is provided on the push rod seat 303. A buckle placement rack 305 is also provided on the pedestal 301. The buckle placement rack 305 is located at the front end of the buckle pushing module 302. A buckle fixture 306 is provided on the buckle placement rack 305, and a guide groove 307 is opened on the buckle fixture 306. The guide groove 307 is correspondingly arranged with the push rod 304, and the guide groove 307 is used for the placement of the buckle and the pushing of the push rod 304.
[0084] In this embodiment, the buckle pushing module 302 includes a mold frame. A pushing end is movably provided on the mold frame. A servo motor for driving the pushing end to move horizontally along the mold frame is provided on one side of the mold frame, and a sensor is provided at the guide groove 307.
[0085] As Figures 9-10As shown in the figure: The buckle grasping device 4 includes a material taking frame 401, on which a slide rail 402 is provided. A driving block is arranged on the slide rail 402. On one side of the material taking frame 401, a first push cylinder 403 for driving the driving block to move left and right is provided. A second push cylinder 404 is arranged on the driving block. A connecting plate 405 is provided on the pushing end of the second push cylinder 404. A rotary cylinder 406 is installed on the connecting plate 405. A flipping material taking mechanism 407 is arranged on the rotating end of the rotary cylinder 406. The second push cylinder 404 controls the up and down movement of the flipping material taking mechanism 407. The rotary cylinder 406 controls the flipping material taking mechanism 407 to rotate to the discharge chute of the vibrating disk 2 for material taking. The flipping material taking mechanism 407 is a rotary clamping finger cylinder, which is used to adjust the direction of the buckle. In this embodiment, the buckle is grasped by opening and closing the fixture on the clamping end of the rotary clamping finger cylinder, and the position of the buckle is adjusted by the rotating end of the rotary clamping finger cylinder to ensure that it can be accurately snapped into the pipe body.
[0086] As Figure 8 shown in the figure: The pressing mechanism includes a blanking module 10, a module frame 11 and a guiding and positioning mechanism;
[0087] The module frame 11 is installed on the frame 1 and is used to fix the blanking module 10;
[0088] A ejector rod seat 12 is arranged on the driving end of the blanking module 10. An ejector rod 13 is installed on the ejector rod seat 12. The ejector rod 13 and the push rod 304 are arranged oppositely. The ejector rod 13 can extend into the wind chime pipe to abut against and limit the buckle. In this embodiment, the structure of the blanking module 10 is the same as that of the buckle pushing module 302, and will not be elaborated here too much.
[0089] The guiding and positioning mechanism includes a positioning frame 14 arranged at the front end of the blanking module 10. A bearing follower 15 is installed on the positioning frame 14. The bearing follower 15 is used to fit the outer wall of the wind chime pipe for conveying. A positioning cylinder 16 is installed on the top of the positioning frame 14. A pressing plate 1601 is arranged on the driving end of the positioning cylinder 16. A sensor is arranged below the pressing plate 1601. A positioning module 17 is arranged on one side of the positioning frame 14. A positioning support 18 for placing the wind chime pipe is arranged on the positioning module 17. The positioning module 17 is used to adjust the up and down position of the positioning support 18 to lift the pipe orifice upward to expose it, so as to facilitate the push rod 304 to push the buckle into the pipe body.
[0090] In this embodiment, the positioning module 17 includes a clamping plate fixed to one side of the positioning frame 14. An activity groove is provided on the clamping plate, and an adjusting plate is arranged in the activity groove. One end of the adjusting plate is connected with an adjusting cylinder. Through grooves are formed in the adjusting plate in an up-and-down alignment. The positioning support 18 moves up and down in the activity groove and is provided with guide wheels. The guide wheels are arranged in the through grooves. The up-and-down adjustment of the support 18 is realized by controlling the adjusting cylinder. A clamping seat for placing the wind chime tube is arranged at the top of the positioning support 18, and the clamping seat and the tube seat 902 are arranged correspondingly.
[0091] In this embodiment, there are two groups of positioning modules 17 arranged side by side on the same horizontal plane.
[0092] As Figure 11 shown: A guiding device 20 is arranged at the discharge chute of the vibrating disk 2. The guiding device 20 includes a discharge rack 2001, a separating cylinder 2002 and a guiding device installed at the discharge chute of the vibrating disk 2. In this embodiment, the vibrating disk 2 is placed on a base.
[0093] The discharge rack 2001 is installed on the frame 1. An avoidance groove is formed at the top of the discharge rack 2001. Top blocks are formed on both sides of the avoidance groove. Clamping blocks 2003 are arranged at the top ends of the top blocks. A storage position for buckles to be placed is formed between the two clamping blocks 2003. A sensor for triggering the tube body grasping device 8 is arranged at the storage position.
[0094] The separating cylinder 2002 is installed at the top of the discharge rack 2001 through an extension plate 2004 and is located above the discharge chute of the vibrating disk 2. A separating block 2005 is arranged at the driving end of the separating cylinder 2002. The separating cylinder 2002 is used to control the separating block 2005 to isolate the discharge chute to play a role in blocking the buckles.
[0095] The guiding device includes a guiding cylinder 2006 arranged on one side of the discharge rack 2001. A guiding block 2007 is arranged at the driving end of the guiding cylinder 2006. A grasping groove 2008 corresponding to the avoidance groove is formed on the guiding block 2007. The grasping groove 2008 is used to guide the grasping part of the flipping and picking mechanism to the lower part of the buckle.
[0096] It further includes sensors installed on both sides of the discharge rack 2001 for sensing the position of the buckles to control the buckle grasping device 4.
[0097] As Figure 12 shown: The discharging mechanism includes a finished product picking rack 300 arranged at the end of the frame 1, a linear driving module 3001 arranged on the finished product picking rack 300 and a material bin 3002. The finished product picking rack 300 is used to fixedly install the linear driving module 3001. The linear driving module 3001 controls the left and right movement of the discharging cylinder rack 3003 through a cylinder. The linear driving module 3001 is a prior art.
[0098] The linear drive module 3001 is provided with a drive end that is controlled to move left and right by a cylinder, and a discharge cylinder frame 3003 is provided on the drive end;
[0099] A finished product discharge cylinder 3004 is provided on the discharge cylinder frame 3003, a push plate 3005 is provided on the push end of the finished product discharge cylinder 3004, a discharge grasping cylinder 3006 is provided on each side of the push plate 3005, and a caliper for grasping the wind chime tube is provided on the drive end of the discharge grasping cylinder 3006; the structures of the discharge mechanism and the tube grasping device 8 are the same.
[0100] As Figures 1-3 shown: The material bin 3002 is used to store the wind chime tubes assembled with buckles, and the discharge grasping cylinder 3006 is used to grasp the wind chime tubes into the material bin 3005. In this embodiment, a support frame is provided below the material bin 3005, and the material bin 3005 is correspondingly arranged at the discharge port.
[0101] As Figure 3 shown: An adjustment frame 40 is provided on the frame 1, the adjustment frame 40 is movable on the frame 1 through a drive mechanism, a first drive group and a second drive group are oppositely arranged on the sprocket assembly 9, the second drive group is installed on the adjustment frame 40, and the distance between the first drive group and the second drive group is controlled through the adjustment frame 40. A first limit plate 4001 and a second limit plate 4002 are also provided on the adjustment frame 40, and the second limit plate 4002 extends into the feeding frame 5 and is fixed by a fastener. By setting the adjustment frame 40, the distance can be adjusted to adapt to tubes of different lengths.
[0102] As Figure 3 shown: The drive mechanism includes an adjustment frame drive module 4003 and a sliding assembly. The drive cylinder 4003 is installed on the frame 1, the push end of the adjustment frame drive module 4003 is fixedly connected to one end of the adjustment frame 40, the sliding assembly includes a guide rail provided on the frame 1 and a slider installed below the adjustment frame 40, and the adjustment frame 40 is slidably connected through the cooperation of the guide rail and the slider.
[0103] In addition, the buckle in the present invention includes a suspension portion and abutting portions located on both sides of the suspension portion. The abutting portions have a number of upwardly bent abutting claws, and the abutting claws contact and fit with the inner wall of the tube to limit the buckle in the tube. When the buckle is in the initial state, its abutting portions are folded together. When the push rod 304 pushes the buckle into the tube, at first the buckle is still in an unfolded state, and the abutting portions on both sides do not contact the inner wall of the tube. When the suspension portion at the rear of the buckle abuts against the top rod 13, the push rod 304 still continues to apply pressure, so as to force the folded abutting portions to extend to both sides until the abutting claws provided on the abutting portions abut against the inner wall of the tube, thereby realizing the fixed installation of the buckle.
[0104] The beneficial effects of the present invention are as follows:
[0105] A wind chime tube assembly machine is composed of a tube body feeding mechanism, a conveying mechanism, a buckle feeding mechanism, a pressing-in mechanism and a discharging mechanism. The tube body feeding mechanism is installed at the initial end of the frame 1, and includes a feeding rack 5 for storing the tube bodies of the wind chime tubes, a lifting device 6 for sequentially ejecting the wind chime tubes in the feeding rack 5, a material distributing device 7 for picking up the wind chime tubes at the lifting device 6 and conveying them to the lower part of the tube body grasping device 8, and a tube body grasping device 8 for grasping the wind chime tubes separated by the material distributing device 7 and placing them on the conveying mechanism. The conveying mechanism includes two sets of oppositely arranged sprocket assemblies 9, and the sprocket assemblies 9 are driven by a sprocket driving motor 901. Tube seats 902 are provided on the chains of the sprocket assemblies 9, and the tube seats 902 on the two sets of chains correspond to each other. After the tube body grasping device 8 grasps the wind chime tube body from the material distributing device 7 and places it on the tube seat 902, the wind chime tube body located on the tube seat 902 will move along with the transmission direction of the chain to between the buckle feeding mechanism and the pressing-in mechanism. The buckle feeding mechanism includes a vibrating disk 2, a buckle pushing module 3 and a buckle grasping device 4. The vibrating disk 2 is used for storing and conveying the buckles. The buckle grasping device 4 is used for clamping the buckles in the output groove of the vibrating disk 2 and placing them at the pushing end of the buckle pushing module 3. The buckle pushing module 3 pushes the buckles in front of its pushing end into the tube body of the wind chime tube. The pressing-in mechanism plays a role in limiting and abutting against the buckles.
[0106] Among them, the ejector rod 13 in the pressing-in mechanism and the push rod 304 in the buckle pushing module 3 are oppositely arranged. When the tube seat 902 with the wind chime tube body moves to between the buckle pushing module 3 and the pressing-in mechanism, the ejecting module 10 in the pressing-in mechanism will be started. The ejector rod 13 on the ejecting module 10 moves forward and extends into the tube body. After the ejector rod 13 is in place, the buckle grasping device 8 grasps the buckles at the output groove of the vibrating disk 2 and places them on the buckle fixture 306.
[0107] When the sensor at the buckle fixture 306 senses the buckle, the buckle pushing module 3 is started. The push rod 304 in the buckle pushing module 3 drives the buckle to move forward and enter the tube body. The buckle just entering the tube body does not contact the inner wall of the tube body. When the push rod 304 pushes the buckle to abut against the ejector rod 13, pressure will continue to be applied to the buckle. At this time, the two sides of the buckle that were originally in a bent state will expand outwards until they abut against the inner wall of the tube body to form a clamping state, realizing the fixed installation of the tube body and the buckle. When the buckle is installed in place, the ejector rod 10 and the push rod 304 withdraw from the tube body in sequence. Then, the sprocket assembly 9 drives the assembled wind chime tube to continue moving to the discharging mechanism. The blanking grasping cylinder 3006 in the discharging mechanism grasps the wind chime tube on the tube seat 902 and puts it into the bin to complete the entire composition process of the wind chime tube.
[0108] The above technical solution assembles the buckle into the wind chime tube in a fully automatic manner, saving the existing multiple assembly processes to one process. At the same time, there is no need to use an inner groove digging mechanism and a spring loading mechanism, streamlining the entire installation process and reducing the overall failure rate, thereby increasing the production efficiency of the equipment. Moreover, the produced wind chime tube has higher firmness, solving the technical problems of the existing wind chime tube assembly equipment, such as cumbersome processes, low work efficiency, more components required, and high failure rate.
[0109] The above are only the preferred embodiments of the present invention, and do not limit the patent scope of the present invention accordingly. Any equivalent structural transformation made under the inventive concept of the present invention by using the content of the specification and drawings of the present invention, or directly / indirectly applied in other related technical fields, is included in the patent protection scope of the present invention.
Claims
1. A wind chime tube assembling machine, characterized in that: It includes a frame, on which a pipe feeding mechanism, a conveying mechanism, a buckle feeding mechanism, a pressing-in mechanism and a discharging mechanism are installed; The pipe feeding mechanism is installed at the initial end of the frame and is used for storing and feeding the wind chime pipes; The conveying mechanism is used to receive the wind chime pipes output from the pipe feeding mechanism and convey the wind chime pipes to the discharging mechanism. During the conveying process of the wind chime pipes, they will pass between the buckle feeding mechanism and the pressing-in mechanism; The buckle feeding mechanism includes: A vibrating bowl, which is used for storing and outputting buckles; A buckle pushing device, which is used to push the buckle into and snap it into the wind chime pipe; A buckle grasping device, which is used to grasp the buckle from the discharging chute of the vibrating bowl and place it at the pushing end of the buckle pushing device; The pressing-in mechanism and the buckle pushing device are arranged oppositely, and the pressing-in mechanism extends into the pipe orifice of the wind chime pipe far from the buckle pushing device to abut and limit the buckle; The discharging mechanism is used to output the wind chime pipes with assembled buckles.
2. The wind chime tube assembling machine according to claim 1, characterized in that: The pipe feeding mechanism includes a material placing rack, a material lifting device, a material distributing device and a pipe grasping device; The material placing rack is used for storing the wind chime pipe bodies; The material lifting device includes a mounting rack, a plurality of movable ejector rods arranged longitudinally offset and transversely side by side on the mounting rack, a lifting cylinder for driving all the movable ejector rods to move up and down synchronously, and an obliquely arranged guide plate for the wind chime pipes to slide down; The material distributing device includes a distributing plate for conveying the wind chime pipes below the pipe grasping device and a top material module for pushing the wind chime pipes upward; The pipe grasping device includes a manipulator module and a linear driving module for driving the manipulator module to move. The driving manipulator module is used to grasp and move the wind chime pipes located on the distributing plate to the conveying mechanism; 3. A wind chime tube assembling machine according to claim 1, characterized in that: The conveying mechanism includes at least two sprocket assemblies arranged along the conveying direction of the wind chime pipes and running synchronously, a sprocket driving motor for driving the sprocket assemblies to work, and pipe seats evenly spaced and installed on the chains of the sprocket assemblies. The pipe seats on different sprocket assemblies are respectively in one-to-one position correspondence along the axial direction of the wind chime pipes and are jointly used to support and place the wind chime pipes; 4. A wind chime tube assembly machine according to claim 3, characterized in that: The buckle pushing device includes a pedestal arranged on one side of the sprocket assembly and a buckle pushing module installed on the pedestal. A push rod seat is provided at the pushing end of the buckle pushing module, and a push rod corresponding to the pipe seat is provided on the push rod seat. A buckle placing rack is also provided on the pedestal, and the buckle placing rack is located at the front end of the buckle pushing module. A buckle clamp is provided on the buckle placing rack, and a guide groove is opened on the buckle clamp. The guide groove is correspondingly arranged with the push rod and is used for placing the buckle and pushing the push rod.
5. A wind chime tube assembling machine according to claim 1, characterized in that: The snap gripping device includes a material taking rack, on which a slide rail is provided. A driving block is arranged on the slide rail. A first push cylinder for driving the driving block to move left and right is arranged on one side of the material taking rack. A second push cylinder is arranged on the driving block. A connecting plate is arranged on the pushing end of the second push cylinder. A rotary cylinder is installed on the connecting plate. A turning material taking mechanism is arranged on the rotating end of the rotary cylinder. The second push cylinder controls the up and down movement of the turning material taking mechanism. The rotary cylinder controls the turning material taking mechanism to rotate to the discharge chute of the vibrating bowl for material taking. The turning material taking mechanism is a rotary clamping finger cylinder for adjusting the direction of the snap.
6. The wind chime tube assembling machine according to claim 4, wherein: The pressing mechanism includes a blanking module, a module frame and a guiding and positioning mechanism; The module frame is installed on the frame for fixing the blanking module; A ejector rod seat is arranged on the driving end of the blanking module. An ejector rod is installed on the ejector rod seat. The ejector rod and the push rod are arranged oppositely. The ejector rod can extend into the wind chime tube for abutting and limiting the snap; The guiding and positioning mechanism includes a positioning frame arranged at the front end of the blanking module. A bearing follower is installed on the positioning frame. The bearing follower is used to fit the outer wall of the wind chime tube for easy conveying. A positioning cylinder is installed on the top of the positioning frame. A pressing plate is arranged on the driving end of the positioning cylinder. A positioning module is arranged on one side of the positioning frame. A positioning support for placing the wind chime tube is arranged on the positioning module.
7. A wind chime tube assembling machine according to any one of claims 1-6, characterized in that: A guiding device is arranged at the discharge chute of the vibrating bowl. The guiding device includes a discharge rack installed at the discharge chute of the vibrating bowl, a separating cylinder and a guiding device; The discharge rack is installed on the frame. An avoidance groove is formed at the top of the discharge rack. Top blocks are formed on both sides of the avoidance groove. Clamping blocks are arranged at the top ends of the top blocks. A storage position for placing the snap is formed between the two clamping blocks; The separating cylinder is installed on the top of the discharge rack through an extension plate and is located above the discharge chute of the vibrating bowl. A separating block is arranged on the driving end of the separating cylinder. The separating cylinder is used to control the separating block to isolate the discharge chute; The guiding device includes a guiding cylinder arranged on one side of the discharge rack. A guiding block is arranged on the driving end of the guiding cylinder. A grasping groove corresponding to the avoidance groove is formed on the guiding block. The grasping groove is used to guide the grasping part of the turning material taking mechanism to the lower part of the snap; It also includes a sensor installed on both sides of the discharge rack for sensing the position of the snap to control the snap gripping device.
8. A wind chime tube assembling machine according to claim 7, characterized in that: The discharging mechanism includes a finished product taking rack arranged at the end of the frame, a linear driving module arranged on the finished product taking rack and a material bin. The finished product taking rack is used for fixedly installing the linear driving module; The linear driving module is provided with a driving end controlled to move left and right by a cylinder. An unloading cylinder rack is arranged on the driving end; A finished product unloading cylinder is arranged on the unloading cylinder rack. A pushing plate is arranged on the pushing end of the finished product unloading cylinder. A material unloading grasping cylinder is arranged on each side of the pushing plate. A caliper for grasping the wind chime tube is arranged on the driving end of the material unloading grasping cylinder; The silo is used to store the wind chime tubes assembled with buckles, and the blanking grasping cylinder is used to grasp the wind chime tubes into the silo.
9. The wind chime tube assembling machine according to claim 3, wherein: An adjustment frame is provided on the frame. The adjustment frame is movable on the frame through a driving mechanism. The sprocket assembly has a first transmission group and a second transmission group arranged oppositely. The second transmission group is installed on the adjustment frame to control the distance between the first transmission group and the second transmission group through the adjustment frame. A first limiting plate and a second limiting plate are further provided on the adjustment frame, and the second limiting plate extends into the feeding frame and is fixed by a fastener.
10. The wind chime tube assembling machine according to claim 9, wherein: The driving mechanism includes an adjustment frame driving module and a sliding component. The driving cylinder is installed on the frame. The pushing end of the adjustment frame driving module is fixedly connected to one end of the adjustment frame. The sliding component includes a guide rail provided on the frame and a slider installed below the adjustment frame. The adjustment frame is slidably connected through the cooperation of the guide rail and the slider.
Citation Information
Patent Citations
Assembling machine for additionally installing clamp spring in wind chime pipe
CN115008166A