A foam tube assembly assembly device

CN224615668UActive Publication Date: 2026-08-11FUDING RUIDA AUTOMATION EQUIP CO LTD
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Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2025-09-16
Publication Date
2026-08-11

AI Technical Summary

Technical Problem

在化油器的生产过程中,主要采用人工对泡沫管与主量孔管进行组装锁丝,由于泡沫管与主量孔管的工件体积过小,人工操作不方便,而且人工组装速度较慢,组装质量不可控,产品的合格率较低

Benefits of technology

本实用新型能够实现主量孔管与泡沫管的自动装配,不仅降低了人工投入的成本,还避免了人工漏装和错装的问题,有效提高了泡沫管组件的生产效率,其能够满足大批量的生产需求,可较好地适用于多种类型的生产线。

✦ Generated by Eureka AI based on patent content.

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Abstract

This utility model discloses a foam tube assembly device, including an assembly mechanism. The assembly mechanism includes a locking screw assembly seat, an assembly bit, and an assembly drive mechanism. The locking screw assembly seat has an assembly hole and a first limiting slide rail and a second limiting slide rail communicating with the assembly hole. A first feeding slider is slidably disposed within the first limiting slide rail, and the first feeding slider has a first feeding hole adapted to the foam tube. The first feeding slider is connected to the first drive mechanism. A second feeding slider is slidably disposed within the second limiting slide rail, and the second feeding slider has a second feeding hole adapted to the main measuring orifice tube. The second feeding slider is connected to the second drive mechanism. This utility model can realize the automatic assembly of the main measuring orifice tube and the foam tube, which not only reduces the cost of manual input but also avoids the problems of manual omission and misassembly, effectively improving the production efficiency of foam tube assemblies.
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Description

Technical Field

[0001] This utility model belongs to the field of foam tube assembly technology, specifically relating to a foam tube assembly device. Background Technology

[0002] A carburetor is a mechanical device that mixes gasoline and air in a specific ratio under the vacuum generated by the engine. As a precision mechanical device, the carburetor utilizes the kinetic energy of the intake airflow to atomize the gasoline. The carburetor automatically prepares and outputs the appropriate mixture concentration based on the engine's operating conditions. To ensure a relatively uniform mixture, the carburetor also atomizes the fuel for proper engine operation. Therefore, high precision is required in the positioning and installation of the carburetor components to guarantee effective fuel atomization through improved assembly quality.

[0003] The carburetor's foam tube assembly consists of a foam tube and a main jet tube, which are connected by threads. During carburetor production, the foam tube and main jet tube are primarily assembled and threaded manually. However, due to the small size of the foam tube and main jet tube, manual operation is inconvenient, and the assembly speed is slow, resulting in uncontrollable assembly quality and a low product qualification rate. Utility Model Content

[0004] The purpose of this invention is to provide a foam tube assembly device to solve the above-mentioned problems existing in the prior art.

[0005] To achieve the above objectives, this utility model adopts the following technical solution: a foam tube assembly device, comprising an assembly mechanism, the assembly mechanism including a locking wire assembly seat, an assembly bit, and an assembly drive mechanism. The locking wire assembly seat has an assembly hole and a first limiting slide rail and a second limiting slide rail communicating with the assembly hole. A first feeding slider is slidably disposed within the first limiting slide rail. The first feeding slider has a first feeding hole adapted to the foam tube. The first feeding slider is connected to a first drive mechanism, which drives the first feeding slider along... The first limiting slide rail slides to make the first feeding hole coaxial with the assembly hole; a second feeding slider is slidably provided in the second limiting slide rail, the second feeding slider has a second feeding hole adapted to the main measuring orifice tube, the second feeding slider is connected to a second driving mechanism, the second driving mechanism is used to drive the second feeding slider to slide along the second limiting slide rail to make the second feeding hole coaxial with the assembly hole; the assembly driving mechanism is connected to the assembly bit, the assembly driving mechanism is used to drive the assembly bit to extend into the assembly hole to contact the main measuring orifice tube, and to drive the foam tube to rotate to realize the assembly of the main measuring orifice tube and the foam tube.

[0006] As an optional implementation of the above technical solution, the bottom of the assembly hole is provided with a material dropping slider, the material dropping slider is provided with a material dropping hole, and the material dropping slider is connected to a third driving mechanism. The first driving mechanism is used to drive the material dropping slider to slide radially along the assembly hole so that the material dropping hole is coaxial with the assembly hole.

[0007] As an optional implementation of the above technical solution, the locking wire assembly seat is provided with a third limiting slide that communicates with the assembly hole, and the material unloading slider is slidably disposed in the third limiting slide.

[0008] As an optional implementation of the above technical solution, the assembly drive mechanism includes an assembly drive motor and an assembly drive cylinder. The output shaft of the assembly drive motor is slidably engaged with the assembly bit. The assembly drive motor is used to drive the assembly bit to rotate, and the assembly drive cylinder is used to drive the assembly bit to extend and retract.

[0009] As an optional implementation of the above technical solution, the locking wire assembly seat is provided with a first feeding head and a second feeding head. The first feeding head is connected to a foam tube feeding mechanism, and the second feeding head is connected to a main measuring orifice tube feeding mechanism.

[0010] As an optional implementation of the above technical solution, the foam tube feeding mechanism includes a foam tube vibrating plate and a foam tube distributor. The output end of the foam tube vibrating plate is connected to the foam tube distributor. The foam tube distributor is used to output foam tubes one by one. A foam tube unloading pipe is provided between the foam tube distributor and the first feeding head.

[0011] As an optional implementation of the above technical solution, the main orifice tube feeding mechanism includes a feeding unit, a moving unit, a drilling unit, a cleaning unit, a flow detection unit, and a laser marking unit. The feeding unit is used to provide the main orifice tube; the moving unit is used to move the main orifice tube; the drilling unit is used to drill holes in the main orifice tube to form a main orifice; the cleaning unit is used to clean the main orifice; the flow detection unit is used to detect whether the flow rate of the main orifice meets the standard; and the laser marking unit is used to laser mark the outer wall of the main orifice tube.

[0012] As an optional implementation of the above technical solution, the feeding unit includes a main orifice vibrating plate, a main orifice distributor, and an ejection mechanism. The output end of the main orifice vibrating plate is connected to the main orifice distributor. The main orifice distributor is used to output the main orifice tubes one by one, and the ejection mechanism is used to eject the main orifice tubes.

[0013] As an optional implementation of the above technical solution, the moving unit includes a lifting seat, a lifting drive mechanism, a slide rail, a sliding drive mechanism, and a clamping mechanism. The output end of the lifting drive mechanism is connected to the lifting seat. The slide rail is slidably engaged with the lifting seat. The sliding drive mechanism is used to drive the slide rail to slide on the lifting seat. The slide rail is provided with a plurality of clamping mechanisms for clamping the main measuring orifice tube.

[0014] As an optional implementation of the above technical solution, the drilling unit includes a pneumatic chuck, a lifting module, and a drill bit mechanism. The pneumatic chuck is used to fix the main measuring hole tube, the lifting module is connected to the drill bit mechanism, and the drill bit mechanism is used to drill the main measuring hole on the main measuring hole tube.

[0015] As an optional implementation of the above technical solution, the cleaning unit includes an upper air blowing mechanism and a lower collection mechanism. The upper air blowing mechanism is used to blow air into the main metering orifice, and the lower collection mechanism is used to collect the debris blown out of the main metering orifice.

[0016] As an optional implementation of the above technical solution, a material distribution mechanism is provided below the assembly hole, which is used to separate qualified and unqualified products for feeding.

[0017] As an optional implementation of the above technical solution, the material distribution mechanism includes a material distribution slide plate and a material distribution baffle. The material distribution slide plate has a material distribution hole, and the material distribution baffle is connected to a material distribution driving mechanism. The material distribution driving mechanism is used to drive the material distribution baffle to slide along the material distribution slide plate to open or cover the material distribution hole, thereby separating qualified and unqualified products for material distribution.

[0018] The beneficial effects of this utility model are as follows: This invention enables the automatic assembly of the main measuring tube and the foam tube, which not only reduces the cost of manual labor but also avoids the problems of manual omissions and misassemblies, effectively improving the production efficiency of foam tube components. It can meet the needs of large-scale production and is well applicable to various types of production lines. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the structure of a foam tube assembly device in one embodiment of this utility model; Figure 2 This is a three-dimensional structural diagram of the assembly mechanism in one embodiment of this utility model; Figure 3 This is an exploded view of the assembly mechanism in one embodiment of the present invention; Figure 4 This is a schematic diagram of the structure of the foam tube feeding mechanism in one embodiment of this utility model; Figure 5This is a schematic diagram of the feeding unit in one embodiment of the present invention; Figure 6 This is a schematic diagram of the structure of the moving unit in one embodiment of the present invention; Figure 7 This is a schematic diagram of the structure of the drilling unit, cleaning unit, flow detection unit and laser marking unit in one embodiment of the present invention; Figure 8 This is a schematic diagram of the material distribution mechanism in one embodiment of this utility model.

[0020] In the diagram: 1-Assembly mechanism; 2-Foam tube feeding mechanism; 3-Main measuring tube feeding mechanism; 4-Distribution mechanism; 5-Frame; 101-Thread locking assembly base; 102-Assembly bit; 103-Assembly hole; 104-First limiting slide; 105-Second limiting slide; 106-First feeding slider; 107-First feeding hole; 108-First drive mechanism; 109-Second feeding slider; 110-Second feeding hole; 111-Second drive mechanism; 112-Discharging slider; 113-Discharging hole; 114-Third drive mechanism; 115-Third limiting slide; 116-Assembly drive motor; 117-Assembly drive cylinder; 118-First feeding head; 119-Second feeding head; 201-Foam tube vibratory feeder; 202-Foam tube distributor; 31-Feeding unit; 32-Moving unit; 33-Drilling unit; 34-Cleaning unit; 35-Flow detection unit; 36-Laser marking unit; 311-Main orifice vibratory plate; 312-Main orifice distributor; 313-Ejection mechanism; 321-Lifting seat; 322-Lifting drive mechanism; 323-Slide rail; 324-Sliding drive mechanism; 325-Clamping mechanism; 331-Pneumatic chuck; 332-Lifting module; 333-Drill bit mechanism; 341 - Upper blowing mechanism; 342 - Lower collecting mechanism; 401 - Material distribution slide plate; 402 - Material distribution baffle; 403 - Material distribution drive mechanism. Detailed Implementation

[0021] like Figures 1-8As shown, this embodiment provides a foam tube assembly device, including a frame 5 and an assembly mechanism 1. The assembly mechanism 1 includes a locking wire assembly seat 101, an assembly bit 102, and an assembly drive mechanism. The locking wire assembly seat 101 is disposed on the frame 5. An assembly hole 103 is provided in the middle of the locking wire assembly seat 101. The locking wire assembly seat 101 is provided with a first limiting slide 104 and a second limiting slide 105 communicating with the assembly hole 103. The first limiting slide 104 and the second limiting slide 105 are respectively located on the left and right sides of the locking wire assembly seat 101, and the first limiting slide 104 is located below the second limiting slide 105.

[0022] like Figure 2 and Figure 3 As shown, a first feeding slider 106 is slidably disposed within the first limiting slide 104. The first feeding slider 106 has a first feeding hole 107 adapted to the foam tube. The first feeding slider 106 is connected to a first driving mechanism 108. The first driving mechanism 108 is used to drive the first feeding slider 106 to slide along the first limiting slide 104 so that the first feeding hole 107 is coaxial with the assembly hole 103. The first driving mechanism 108 is usually a cylinder. The first driving mechanism 108 drives the first feeding slider 106 to move to one end of the first limiting slide 104, at which point feeding is performed, and the foam tube is inserted into the first feeding hole 107. The first driving mechanism 108 then drives the first feeding slider 106 to move to the other end of the first limiting slide 104, at which point the first feeding hole 107 is coaxial with the assembly hole 103.

[0023] A second feeding slider 109 is slidably disposed within the second limiting slide 105. The second feeding slider 109 has a second feeding hole 110 adapted to the main measuring orifice tube. The second feeding slider 109 is connected to a second driving mechanism 111. The second driving mechanism 111 is used to drive the second feeding slider 109 to slide along the second limiting slide 105 so that the second feeding hole 110 is coaxial with the assembly hole 103. The second driving mechanism 111 is usually a cylinder. The second driving mechanism 111 drives the second feeding slider 109 to move to both ends of the second limiting slide 105, at which point feeding is performed, and the main measuring orifice tube is inserted into the second feeding hole 110. The second driving mechanism 111 then drives the second feeding slider 109 to move to the other end of the second limiting slide 105, at which point the second feeding hole 110 is coaxial with the assembly hole 103.

[0024] The assembly drive mechanism is connected to the assembly bit 102. The assembly drive mechanism drives the assembly bit 102 to extend into the assembly hole 103 and contact the main measuring orifice tube, and drives the foam tube to rotate to achieve the assembly of the main measuring orifice tube and the foam tube. After the first feeding hole 107, the second feeding hole 110, and the assembly hole 103 are coaxial, the assembly drive mechanism drives the assembly bit 102 to move downwards and contact the main measuring orifice tube. Then, the assembly drive mechanism drives the assembly bit 102 to rotate, causing the assembly bit 102 to rotate with the main measuring orifice tube, thus achieving the threaded assembly of the main measuring orifice tube and the foam tube.

[0025] This invention enables the automatic assembly of the main measuring tube and the foam tube, which not only reduces the cost of manual labor but also avoids the problems of manual omissions and misassemblies, effectively improving the production efficiency of foam tube components. It can meet the needs of large-scale production and is well applicable to various types of production lines.

[0026] like Figure 3 As shown, in this embodiment, a material discharge slider 112 is provided at the bottom of the assembly hole 103. The material discharge slider 112 has a material discharge hole 113. A third driving mechanism 114 is connected to the material discharge slider 112. A first driving mechanism 108 is used to drive the material discharge slider 112 to slide radially along the assembly hole 103 so that the material discharge hole 113 is coaxial with the assembly hole 103. Preferably, the locking wire assembly seat 101 has a third limiting slide 115 communicating with the assembly hole 103. The material discharge slider 112 is slidably disposed within the third limiting slide 115. The third limiting slide 115 is perpendicularly connected to the assembly hole 103. When the material discharge slider 112 slides to one end of the third limiting slide 115, it blocks the assembly hole 103 to prevent the foam tube assembly from falling out. After the foam tube assembly is assembled, the material drop slider 112 slides a distance along the third limit slide 115, so that the material drop hole 113 is coaxial with the assembly hole 103, and the foam tube assembly falls from the assembly hole 103.

[0027] Below the assembly hole 103 is a material separating mechanism 4, which is used to separate qualified and unqualified products for feeding. Figure 8As shown, specifically, the material distribution mechanism 4 includes a material distribution slide plate 401 and a material distribution baffle 402. The material distribution slide plate 401 has a material distribution hole, and the material distribution baffle 402 is connected to a material distribution drive mechanism 403. The material distribution drive mechanism 403 is used to drive the material distribution baffle 402 to slide along the material distribution slide plate 401 to open or cover the material distribution hole, thereby separating qualified and unqualified products for material distribution. The material distribution slide plate 401 has a U-shaped structure, and the material distribution baffle 402 has an L-shaped structure. Both the material distribution slide plate 401 and the material distribution baffle 402 are inclined and rely on the gravity of the product for material distribution. The material distribution drive mechanism 403 typically uses a cylinder. When the material distribution drive mechanism 403 drives the material distribution baffle 402 to cover the material distribution hole, the qualified foam tube assembly falling from the assembly hole 103 slides along the material distribution baffle 402 and the material distribution slide plate 401 to achieve material feeding. When the material distribution drive mechanism 403 drives the material distribution baffle 402 to slide away from the material distribution hole, the unqualified foam tube assembly falling from the assembly hole 103 passes through the material distribution hole to be fed, which facilitates the collection of qualified and unqualified products.

[0028] like Figure 3 As shown, the assembly drive mechanism includes an assembly drive motor 116 and an assembly drive cylinder 117. The output shaft of the assembly drive motor 116 is slidably engaged with the assembly bit 102. The assembly drive motor 116 drives the assembly bit 102 to rotate, and the assembly drive cylinder 117 drives the assembly bit 102 to extend and retract. Under the action of the assembly drive cylinder 117, the assembly bit 102 can slide up and down along the output shaft of the assembly drive motor 116, allowing the assembly bit 102 to move closer to or further away from the main measuring orifice tube. Simultaneously, the output shaft of the assembly drive motor 116 can rotate the assembly bit 102, thus assembling the main measuring orifice tube and the foam tube.

[0029] like Figure 2 As shown, in this embodiment, the locking wire assembly base 101 is provided with a first feeding head 118 and a second feeding head 119. The first feeding head 118 is connected to a foam tube feeding mechanism 2, and the second feeding head 119 is connected to a main measuring orifice tube feeding mechanism 3. The locking wire assembly base 101 has two through holes, which are respectively connected to the first feeding head 118 and the second feeding head 119. The foam tube feeding mechanism 2 is used to supply foam tubes to the first feeding head 118, and the foam tubes enter the first feeding hole 107 after passing through the corresponding through holes. The main measuring orifice tube feeding mechanism 3 is used to supply main measuring orifice tubes to the second feeding head 119, and the main measuring orifice tubes enter the second feeding hole 110 after passing through the corresponding through holes.

[0030] like Figure 4As shown, specifically, the foam tube feeding mechanism 2 includes a foam tube vibrating plate 201 and a foam tube distributor 202. The output end of the foam tube vibrating plate 201 is connected to the foam tube distributor 202. The foam tube distributor 202 is used to output foam tubes one by one. A foam tube unloading pipe is provided between the foam tube distributor 202 and the first feeding head 118, thereby conveying the foam tubes to the first feeding hole 107.

[0031] The main orifice tube feeding mechanism 3 includes a feeding unit 31, a moving unit 32, a drilling unit 33, a cleaning unit 34, a flow detection unit 35, and a laser marking unit 36. The feeding unit 31 provides the main orifice tube; the moving unit 32 moves the main orifice tube; the drilling unit 33 drills the main orifice tube to form a main orifice; the cleaning unit 34 cleans the main orifice; the flow detection unit 35 detects whether the flow rate of the main orifice meets the standard; and the laser marking unit 36 ​​laser marks the outer wall of the main orifice tube. A first station, a second station, a third station, and a fourth station are sequentially arranged on the frame 5, with the drilling unit 33, cleaning unit 34, flow detection unit 35, and laser marking unit 36 ​​respectively located at the first, second, third, and fourth stations. The main orifice tube feeding mechanism 3 integrates drilling, cleaning, inspection and laser marking functions. It adopts automatic feeding and automatic production, reducing labor costs.

[0032] like Figure 5 As shown, the feeding unit 31 includes a main orifice tube vibratory plate 311, a main orifice tube distributor 312, and an ejection mechanism 313. The output end of the main orifice tube vibratory plate 311 is connected to the main orifice tube distributor 312. The main orifice tube distributor 312 is used to output the main orifice tubes one by one. The ejection mechanism 313 is used to eject the main orifice tubes. The ejection mechanism 313 includes an ejection cylinder and a push block. The push block is located at the output end of the main orifice tube distributor 312. The ejection cylinder drives the push block to eject the main orifice tube to the waiting point, and then the moving unit 32 moves the main orifice tube to the corresponding workstation.

[0033] like Figure 6 As shown, in one specific embodiment, the moving unit 32 includes a lifting seat 321, a lifting drive mechanism 322, a slide rail 323, a sliding drive mechanism 324, and a clamping mechanism 325. The output end of the lifting drive mechanism 322 is connected to the lifting seat 321. The slide rail 323 is slidably engaged with the lifting seat 321. The sliding drive mechanism 324 is used to drive the slide rail 323 to slide on the lifting seat 321. The slide rail 323 is provided with four clamping mechanisms 325 for clamping the main measuring orifice tube. The lifting drive mechanism 322 is a cylinder, which drives the lifting seat 321 to move up and down, so that the clamping mechanisms 325 carry the main measuring orifice tube to move up and down.

[0034] like Figure 7 As shown, the drilling unit 33 includes a pneumatic chuck 331, a lifting module 332, and a drill bit mechanism 333. The pneumatic chuck 331 is used to fix the main measuring hole tube, the lifting module 332 is connected to the drill bit mechanism 333, and the drill bit mechanism 333 is used to drill the main measuring hole on the main measuring hole tube.

[0035] The cleaning unit 34 includes an upper air blowing mechanism 341 and a lower collection mechanism 342. The upper air blowing mechanism 341 is used to blow air into the main metering orifice, and the lower collection mechanism 342 is used to collect debris blown out of the main metering orifice. The upper air blowing mechanism 341 includes an air blowing head connected to a cylinder. The cylinder drives the air blowing head to press against the main metering orifice of the main metering tube, and then blows air.

[0036] The assembly process of the foam tube assembly in this utility model includes the following steps: 1. Main orifice tube feeding: The main orifice tube vibratory plate 311 feeds the tube, the main orifice tube feeder 312 feeds the tube, and then the ejection mechanism 313 sends the main orifice tube to the waiting point. 2. Drilling the main measuring tube: The moving unit 32 moves the main measuring tube to the pneumatic chuck 331, the lifting module 332 is activated, the drill bit mechanism 333 is lowered, the drill bit works and drills the main measuring hole on the main measuring tube; 3. Air blowing cleaning: The upper air blowing mechanism 341 is activated, causing the air blowing head to press against the main measuring orifice on the main measuring orifice tube, thus completing the air blowing cleaning work; 4. Visual laser marking machine: Performs marking work on the upper surface of the main measuring tube; 5. Main Measuring Tube Feeding: The moving unit 32 moves the main measuring tube to the second feeding head 119, so that the main measuring tube enters the second feeding hole 110; 6. Foam tube feeding: The foam tube vibrating plate 201 feeds the foam tubes, and the foam tube distributor 202 outputs the foam tubes one by one, and then conveys them to the first feeding head 118 so that the foam tubes enter the first feeding hole 107. 7. Locking the thread: The third drive mechanism 114 actuates, causing the unloading slider 112 to block the assembly hole 103; the first drive mechanism 108 actuates, causing the foam tube to reach the locking point, i.e., the first loading hole 107 and the assembly hole 103 are coaxial, at which point the unloading slider 112 can support the foam tube; the second drive mechanism 111 actuates, causing the main measuring hole tube to reach the locking point, i.e., the second loading hole 110 and the assembly hole 103 are coaxial; the assembly drive cylinder 117 actuates, causing the assembly bit 102 to press down and contact the main measuring hole tube; the assembly drive motor 116 actuates, causing the main measuring hole tube to lock into the foam tube; the third drive mechanism 114 actuates, causing the unloading slider 112 to retract, the unloading hole 113 and the assembly hole 103 are coaxial, causing the assembled part to fall; 8. Unloading: The material distribution drive mechanism 403 moves, causing the material distribution baffle 402 to slide, forming two unloading positions to distinguish between qualified and unqualified products.

[0037] This invention adopts a fully automated production method, with each process and mechanism distributed in a workstation manner, which facilitates maintenance, has a low failure rate, reduces manual intervention, lowers labor costs, and improves product quality.

[0038] In this description of the utility model, the terms "installation," "connection," "linking," and "fixing," etc., should be interpreted broadly. They can refer to fixed connections, detachable connections, or integral connections; they can refer to mechanical or electrical connections; they can refer to direct connections or indirect connections through an intermediate medium; they can refer to the internal communication of two components or the interaction between two components. Those skilled in the art will understand the specific meanings of these terms in this utility model. Furthermore, the specific features and structures described in the embodiments are included in at least one implementation method. Those skilled in the art can combine features from different implementation methods without contradiction. The scope of protection of this utility model is not limited to the specific implementation methods described above. Based on the basic technical concept of this utility model, implementation methods that can be conceived by those skilled in the art without creative effort are all within the scope of protection of this utility model.

Claims

1. A foam tube assembly device, comprising an assembly mechanism (1), characterized in that, The assembly mechanism (1) includes a locking screw assembly seat (101), an assembly bit (102), and an assembly drive mechanism. The locking screw assembly seat (101) has an assembly hole (103) and a first limiting slide (104) and a second limiting slide (105) communicating with the assembly hole (103). A first feeding slider (106) is slidably disposed in the first limiting slide (104). The first feeding slider (106) has a first feeding hole (107) adapted to the foam tube. The first feeding slider (106) is connected to a first drive mechanism (108). The first drive mechanism (108) is used to drive the first feeding slider (106) to slide along the first limiting slide (104) so ​​that the first feeding hole (107) is adapted to the foam tube. 07) Coaxial with the assembly hole (103); a second feeding slider (109) is slidably provided in the second limiting slide (105), the second feeding slider (109) has a second feeding hole (110) adapted to the main measuring orifice tube, the second feeding slider (109) is connected to a second driving mechanism (111), the second driving mechanism (111) is used to drive the second feeding slider (109) to slide along the second limiting slide (105) so that the second feeding hole (110) is coaxial with the assembly hole (103); the assembly driving mechanism is connected to the assembly bit (102), the assembly driving mechanism is used to drive the assembly bit (102) to extend into the assembly hole (103) to contact the main measuring orifice tube, and to drive the foam tube to rotate to realize the assembly of the main measuring orifice tube and the foam tube.

2. The foam tube assembly device according to claim 1, characterized in that, The bottom of the assembly hole (103) is provided with a material dropping slider (112), and a material dropping hole (113) is opened on the material dropping slider (112). The material dropping slider (112) is connected to a third driving mechanism (114). The first driving mechanism (108) is used to drive the material dropping slider (112) to slide radially along the assembly hole (103) so that the material dropping hole (113) is coaxial with the assembly hole (103). The locking wire assembly seat (101) is provided with a third limiting slide (115) communicating with the assembly hole (103). The material dropping slider (112) is slidably disposed in the third limiting slide (115).

3. The foam tube assembly device according to claim 1, characterized in that, The assembly drive mechanism includes an assembly drive motor (116) and an assembly drive cylinder (117). The output shaft of the assembly drive motor (116) is slidably engaged with the assembly bit (102). The assembly drive motor (116) is used to drive the assembly bit (102) to rotate, and the assembly drive cylinder (117) is used to drive the assembly bit (102) to extend and retract.

4. The foam tube assembly device according to claim 1, characterized in that, The locking wire assembly base (101) is provided with a first feeding head (118) and a second feeding head (119). The first feeding head (118) is connected to a foam tube feeding mechanism (2), and the second feeding head (119) is connected to a main measuring orifice tube feeding mechanism (3).

5. The foam tube assembly device according to claim 4, characterized in that, The foam tube feeding mechanism (2) includes a foam tube vibrating plate (201) and a foam tube distributor (202). The output end of the foam tube vibrating plate (201) is connected to the foam tube distributor (202). The foam tube distributor (202) is used to output the foam tubes one by one. A foam tube unloading pipe is provided between the foam tube distributor (202) and the first feeding head (118).

6. The foam tube assembly device according to claim 4, characterized in that, The main orifice tube feeding mechanism (3) includes a feeding unit (31), a moving unit (32), a drilling unit (33), a cleaning unit (34), a flow detection unit (35), and a laser marking unit (36). The feeding unit (31) is used to provide the main orifice tube; the moving unit (32) is used to move the main orifice tube; the drilling unit (33) is used to drill the main orifice tube to form a main orifice; the cleaning unit (34) is used to clean the main orifice; the flow detection unit (35) is used to detect whether the flow rate of the main orifice meets the standard; and the laser marking unit (36) is used to laser mark the outer wall of the main orifice tube.

7. The foam tube assembly device according to claim 6, characterized in that, The feeding unit (31) includes a main orifice vibrating plate (311), a main orifice distributor (312), and an ejection mechanism (313). The output end of the main orifice vibrating plate (311) is connected to the main orifice distributor (312). The main orifice distributor (312) is used to output the main orifice tubes one by one, and the ejection mechanism (313) is used to eject the main orifice tubes.

8. The foam tube assembly device according to claim 6, characterized in that, The moving unit (32) includes a lifting seat (321), a lifting drive mechanism (322), a slide rail (323), a sliding drive mechanism (324), and a clamping mechanism (325). The output end of the lifting drive mechanism (322) is connected to the lifting seat (321). The slide rail (323) is slidably engaged with the lifting seat (321). The sliding drive mechanism (324) is used to drive the slide rail (323) to slide on the lifting seat (321). The slide rail (323) is provided with a plurality of clamping mechanisms (325) for clamping the main measuring orifice tube.

9. The foam tube assembly device according to claim 6, characterized in that, The drilling unit (33) includes a pneumatic chuck (331), a lifting module (332), and a drill bit mechanism (333). The pneumatic chuck (331) is used to fix the main measuring tube. The lifting module (332) is connected to the drill bit mechanism (333). The drill bit mechanism (333) is used to drill the main measuring hole on the main measuring tube. The cleaning unit (34) includes an upper air blowing mechanism (341) and a lower collection mechanism (342). The upper air blowing mechanism (341) is used to blow air into the main metering orifice, and the lower collection mechanism (342) is used to collect debris blown out of the main metering orifice.

10. The foam tube assembly device according to claim 1, characterized in that, Below the assembly hole (103) is a material distribution mechanism (4), which is used to separate qualified and unqualified products for feeding. The material distribution mechanism (4) includes a material distribution slide plate (401) and a material distribution baffle (402). The material distribution slide plate (401) has a material distribution hole. The material distribution baffle (402) is connected to a material distribution drive mechanism (403). The material distribution drive mechanism (403) is used to drive the material distribution baffle (402) to slide along the material distribution slide plate (401) to open or cover the material distribution hole, thereby separating qualified and unqualified products for material distribution.