Remaining needle tube assembly with high connection strength and processing equipment thereof

Abstract

The invention relates to the technical field of medical equipment, in particular to an indwelling needle tube assembly with high connection strength and machining equipment of the indwelling needle tube assembly. The needle tube of the remaining needle is connected through the UV glue, the stability after connection is improved, the quality of the remaining needle is improved, the convenience during machining is also improved, the occurrence of needle collision is reduced, high-automation equipment is adopted for machining during machining, the needle tube and the grab handle are accurately bonded through the UV glue, an assembly line of machined products is formed, and the production efficiency is improved. And the machining quality is improved, the situation of needle collision in the machining process is reduced, meanwhile, the machining efficiency is improved, manual participation is reduced, and the production cost is reduced.

Description

Technical Field

[0001] The invention relates to the technical field of medical equipment, and in particular to an indwelling needle tube assembly with high connection strength and processing equipment thereof. Background Art

[0002] An indwelling needle is a commonly used infusion device in the medical field. It is inserted into the human body through a needle tube and a hose, and the needle tube is pulled out, leaving the hose behind. When performing subsequent infusion, it is connected to the infusion tube through the connector on the hose, thus avoiding repeated injections and reducing the number of injections for the patient.

[0003] Usually, an indwelling needle includes a three-way tube, an isolation plug, a hose, a needle tube, a connecting tube, etc. In order to facilitate holding, one end of the needle tube is usually connected to a handle to facilitate operation by the operator. The needle tube assembly of the indwelling needle includes a needle tube and a handle, which are usually used to puncture patients. During the processing of the needle tube and the handle, the needle tube is usually inserted into the reserved hole in the handle by mechanical equipment, so that the needle tube and the handle have an interference fit, thereby fixing them. The hose is pressed into the three-way tube by metal rivets for connection.

[0004] The needle tube connection method under the prior art is prone to hitting the needle during the plugging process, the connection between the needle tube and the handle is not stable enough, the connection strength is weak, and the processing efficiency is low. Summary of the invention

[0005] In order to solve the problem that the needle tube assembly of the indwelling needle in the prior art is easy to hit the needle during the insertion process and the connection between the needle tube and the handle is not stable enough, the present application provides an indwelling needle tube assembly with high connection strength, and the specific solution is as follows.

[0006] A high connection strength indwelling needle tube assembly comprises a handle and a needle tube, wherein the needle tube is connected to the handle by UV glue, and a shrapnel seat is slidably connected to the needle tube, wherein an anti-needle-stick shrapnel is arranged in the shrapnel seat, and a slot is provided on the needle tube corresponding to the shrapnel seat, wherein the shrapnel seat can be embedded in the slot, and when the shrapnel seat is embedded in the slot, the anti-needle-stick shrapnel abuts against the end of the needle tube and the end of the needle tube passes through the shrapnel seat.

[0007] By adopting the above technical solution, the needle tube and the handle are connected by UV glue, which not only enhances the mechanical strength of the connection part, reduces the occurrence of needle collision during processing, but also improves the convenience during processing.

[0008] In order to solve the problems that the needle tube connection method under the prior art is easy to hit the needle during the insertion process, the connection between the needle tube and the handle is not stable enough, and the processing efficiency is low, the present application provides an indwelling needle needle tube assembly processing equipment with high connection strength, and the specific plan is as follows.

[0009] A high-connection-strength indwelling needle needle tube assembly processing equipment, comprising the above-mentioned high-connection-strength indwelling needle assembly, and also comprising a feeding assembly, a clamping assembly, a processing assembly, and a discharging assembly, wherein the feeding assembly is used to feed the needle tube, and the discharging assembly is used to deliver the processed product; The clamping assembly includes a rotating frame and a rotating material-collecting disk, the rotating material-collecting disk is rotatably connected to the rotating frame, a plurality of needle tube clamps and a rotating motor are arranged on the rotating material-collecting disk, the needle tube clamps are spaced circumferentially along the rotating material-collecting disk, the needle tube clamps are used to clamp the needle tube, and the rotating motor is arranged corresponding to each needle tube clamp and is used to drive the needle tube clamps to rotate; The processing assembly includes a processing table, a guide rail is provided on the processing table, a first mounting cylinder and a second mounting cylinder are provided on the processing table, a first mounting seat is provided on the piston rod of the first mounting cylinder, the first mounting seat is used to place the needle tube, and a second mounting seat is provided on the piston rod of the second mounting cylinder, the second mounting seat is used to place the handle, the first mounting seat and the second mounting seat are both slidably connected to the guide rail, a clamping cylinder is also provided on the first mounting seat, a rubber head is provided on the piston rod of the clamping cylinder, the rubber head is used to abut the needle tube, and a flattening cylinder is also provided on the second mounting seat, the flattening cylinder is used to flatten the tail of the needle tube; The processing assembly also includes a glue dripping rack, which is arranged on the upper side of the processing table. The processing table is also provided with a needle clamp for clamping the needle. The glue dripping rack is provided with a glue dripping tank and a glue dripping head. The glue dripping tank is used to store UV glue. The glue dripping head is connected to the glue dripping tank through a hose. The glue dripping head is rotatably connected to the glue dripping rack and is adjustable. The glue dripping head is used to drip UV glue toward the handle.

[0010] By adopting the above technical solutions, the design of the feeding assembly and the discharging assembly makes the feeding of the needle tube and the discharging process of the needle tube assembly assembled with the indwelling needle more efficient, reducing the time and error of manual operation. The rotating frame and the rotating material collection tray in the clamping assembly are used together to accurately clamp and position the needle tube to ensure that the connection position of the needle tube is accurate. The glue dripping rack and the handle transport rack in the processing assembly are reasonably designed, and the glue dripping head can accurately drip UV glue towards the handle, ensuring the connection strength between the handle and the needle tube, improving the reliability and safety of the product, and realizing a high degree of automated control in the processing process, which can further improve the processing efficiency.

[0011] Optionally, the feeding assembly includes a loading platform, a feeding rack, and a feeding rack. The loading platform is arranged between the feeding rack and the feeding rack. A plurality of feeding channels are arranged on the loading platform, and the feeding channels are arranged at equal intervals along the vertical direction of the loading platform. A servo motor for driving the loading platform to move up and down is arranged on the lower side of the loading platform. A feeding cylinder is arranged on the feeding rack, and the piston rod of the feeding cylinder corresponds to the feeding channel of the loading platform. A feeding pipe is arranged on the feeding rack, and a feeding channel is opened in the feeding pipe. The feeding channel passes through the feeding pipe and corresponds to the needle tube clamp on the rotating material picking disk.

[0012] By adopting the above technical scheme, the loading platform is arranged between the feed rack and the feeding rack, so that efficient transmission of needle tubes can be realized. Multiple material transfer channels are arranged on the loading platform, and the servo motor drives the loading platform to move up and down. The needle tubes in each material transfer channel can be sent out to the feeding tube during the up and down movement of the loading platform, and then guided by the feeding tube to the needle tube clamp, so that multiple needle tubes can be quickly fed in sequence.

[0013] Optionally, a guide frame is also provided on the lower side of the loading platform, a screw rod is provided on the rotating shaft of the servo motor, the screw rod is threadedly connected to the loading platform, a guide rod is provided on the guide frame, the loading platform is slidably connected to the guide rod, and the loading platform can slide up and down along the guide rod when the screw rod rotates.

[0014] By adopting the above technical solution, the structure can ensure that the loading platform remains stable during the up and down movement, prevent the material passage from being misaligned due to offset, and thus improve the processing accuracy and efficiency. The design of the guide frame and the guide rod effectively avoids the shaking of the loading platform and ensures the smooth operation of the loading platform.

[0015] Optionally, a limit rod is provided on the lower side of the feed rack, and the limit rod is used to abut against the loading platform. When the limit rod abuts against the loading platform, the piston rod of the feed cylinder is aligned with the material transfer channel at the top of the loading platform.

[0016] By adopting the above technical solution, the piston rod of the feeding cylinder can be accurately aligned with the feeding channel on the top of the loading platform, thereby improving the accuracy and stability of the feeding process and reducing the feeding failure caused by position deviation.

[0017] Optionally, a flattening assembly is also provided next to the loading platform, and the flattening assembly includes a flattening track, a flattening cylinder is slidably provided on the flattening track, a flattening block is provided on the piston column of the flattening cylinder, and a flattening groove corresponding to the shape of the needle tube is opened in the flattening block.

[0018] By adopting the above technical solution, a flattening assembly is provided to adjust the ends of each needle tube placed in the flattening track to the same position, so that when the feed cylinder pushes, the material can be fed according to a uniform propulsion distance, further improving the stability of the feeding.

[0019] Optionally, an air extraction groove is further provided in the flattening block, and the air extraction groove is communicated with the flattening groove. An air pump is also provided on the flattening block corresponding to the air extraction groove, and the air pump is connected to each air extraction groove.

[0020] By adopting the above technical solution and providing an air extraction groove, when the needle tube is placed too deep and cannot be flattened, the needle tube can be drawn out again by means of air extraction, thereby further improving the flattening effect.

[0021] Optionally, an adsorption groove is further provided on the flattening block, one end of the adsorption groove is connected to the exhaust groove, and the other end of the exhaust groove is arranged close to the loading platform. When the flattening block abuts against the loading platform, the exhaust groove is blocked.

[0022] By adopting the above technical solution and setting an adsorption groove, the flattening block can be more tightly adsorbed on the loading platform when the flattening block is close to the loading platform, thereby further improving the feeding effect and making each delivered needle tube more accurately delivered to the needle tube clamp, thereby improving the accuracy of subsequent processing. When the adsorption groove cannot be blocked, the extraction of the air pump will be affected, so the needle tube will not be adsorbed and the flattening operation will not be performed. Only after they are closely attached can the flattening be performed normally, thereby reducing the situation where flattening when they are not closely attached causes the wrong feeding position, thereby further improving the processing accuracy.

[0023] Optionally, an ultraviolet lamp is also provided on the rotating material taking disc corresponding to each needle tube clamp, and the ultraviolet lamp is used to irradiate the connection between the needle tube and the handle.

[0024] By adopting the above technical solution, an ultraviolet lamp is set to irradiate and solidify the applied UV glue, further improving processing efficiency and reducing waiting time.

[0025] Optionally, the discharging assembly includes a discharging conveyor belt, and the discharging conveyor belt is arranged on the lower side of the rotating material collection tray.

[0026] By adopting the above technical solution, the discharge conveyor belt can efficiently transport the processed indwelling needles from the bottom of the rotating feeding tray, ensuring the continuity and automation of the production process, improving production efficiency, and reducing manual intervention and labor costs.

[0027] In summary, this application has at least the following beneficial effects: 1. The present application solves the problem that the needle tube assembly of the indwelling needle is easy to hit the needle during the insertion process and the connection between the needle tube and the handle is not stable enough. The present application connects the needle tube and the handle through UV glue, eliminating the need to connect the handle and the needle tube through a hit needle, thereby improving the stability of the connection.

[0028] 2. This application also solves the problems of the needle-tube connection method under the prior art, which is easy to hit the needle during the plugging process, the connection between the needle tube and the handle is not stable enough, the hose connection also requires manual operation, and the processing efficiency is low. This application realizes full automation processing through mechanical equipment, which improves the accuracy and processing effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0029] Figure 1 It is an exploded view of the first embodiment.

[0030] Figure 2 It is a cross-sectional view of the first embodiment.

[0031] Figure 3 It is a stereogram of the second embodiment.

[0032] Figure 4 It is a stereogram of the second embodiment, mainly used to show the processing components.

[0033] Figure 5 It is a cross-sectional view of the second embodiment, mainly used to show the clamping assembly.

[0034] Figure 6 It is a cross-sectional view of the second embodiment, mainly used to show the feed assembly.

[0035] Figure 7 It is a cross-sectional view of the third embodiment.

[0036] Figure 8 is a cross-sectional view of the fourth embodiment Description of reference numerals: 1. Handle; 2. needle tube; 21. card slot; 22. shrapnel seat; 221. anti-needle puncture shrapnel; 3. Feeding assembly; 31. Loading platform; 311. Feeding channel; 32. Feeding rack; 321. Feeding cylinder; 322. Limiting rack; 33. Feeding rack; 331. Feeding pipe; 332. Feeding channel; 34. Servo motor; 341. Screw rod; 35. Guide rack; 351. Guide rod; 4. Clamping assembly; 41. Rotating material taking tray; 411. Ultraviolet lamp; 42. Needle clamping claw; 43. Rotating motor; 5. Processing components; 51. Glue dripping rack; 511. Glue dripping tank; 512. Glue dripping head; 52. Processing table; 521. Needle clamp; 53. First mounting cylinder; 531. First mounting seat; 54. Second mounting cylinder; 541. Second mounting seat; 55. Pressing seat; 551. Pressing cylinder; 552. Rubber head; 56. Flattening cylinder; 6. Discharging assembly; 61. Conveyor belt; 7. Flattening assembly; 71. Flattening track; 72. Flattening cylinder; 73. Flattening block; 731. Flattening groove; 732. Vacuum groove; 733. Adsorption groove; 734. Matching groove; 735. Rubber sheet. DETAILED DESCRIPTION

[0037] The present application is further described in detail below through specific embodiments in conjunction with the accompanying drawings.

[0038] Embodiment 1 A high connection strength indwelling needle tube assembly, such as Figure 1 and Figure 2 As shown, it includes a handle 1 and a needle tube 2, one end of which is connected to the handle 1 by UV glue. In specific implementation, the needle tube 2 is hollow, and the needle tube 2 is used to puncture the patient to facilitate the insertion of the infusion hose. One end of the needle tube 2 is flattened and inserted into the handle 1 for installation.

[0039] like Figure 1 and Figure 2 As shown, the needle tube 2 is also slidably connected with a shrapnel seat 22, and an anti-needle-stick shrapnel 221 is arranged in the shrapnel seat 22. The anti-needle-stick shrapnel 221 is fixedly connected, and a slot 21 is opened on the needle tube 2 corresponding to the shrapnel seat 22. The shrapnel seat 22 can be embedded in the slot 21. When the shrapnel seat 22 is embedded in the slot 21, the anti-needle-stick shrapnel 221 abuts against the end of the needle tube 2 and the end of the needle tube 2 passes through the shrapnel seat 22. In specific implementation, when the needle tube assembly is pulled out after the indwelling needle puncture is completed, the anti-needle puncture spring 221 in the spring seat 22 can be triggered so that the needle tip is accommodated in the spring seat 22. At the same time, the slot 21 is engaged with the anti-needle puncture spring 221 in the spring seat 22. The leftmost end of the anti-needle puncture spring 221 rebounds and covers the needle tip through the arc set in the front. At the same time, an upward force is applied to the needle tip, so that the slot 21 on the needle tube 2 is engaged with the anti-needle puncture spring 221, thereby fixing the anti-needle puncture spring 221.

[0040] Working principle: The needle tube 2 is connected to the handle 1 through UV glue. The connection between the needle tube 2 and the handle 1 can further increase stability. At the same time, it can also reduce the situation of needle collision during processing, further improving the processing convenience.

[0041] Embodiment 2 A high connection strength indwelling needle tube assembly processing equipment, such as Figure 3 and Figure 4 As shown, the assembly of the indwelling needle with high connection strength in Example 1 also includes a feeding assembly 3, a clamping assembly 4, a processing assembly 5, and a discharging assembly 6. The feeding assembly 3 is used to feed in the connected needle tube 2, and the discharging assembly 6 is used to feed out the processed indwelling needle.

[0042] like Figure 3 and Figure 5 As shown, the clamping assembly 4 includes a rotating frame and a rotating material collection plate 41, the rotating material collection plate 41 is rotatably connected to the rotating frame, and a plurality of needle tube clamps 42 and a rotating motor 43 are arranged on the rotating material collection plate 41, the needle tube clamps 42 are circumferentially spaced along the rotating material collection plate 41, the needle tube clamps 42 are used to clamp the needle tube 2, and the rotating motor 43 is arranged corresponding to each needle tube clamp 42 and is used to drive the needle tube clamp 42 to rotate. In specific implementation, the rotating material collection plate 41 can rotate to clamp multiple needle tubes 2, and can transport multiple needle tubes 2 for processing at one time, further improving the processing efficiency, and the rotating motor 43 can rotate the needle tube clamp 42, which is convenient for the connection processing of the needle tube 2 and the handle 1.

[0043] like Figure 3 and Figure 4 As shown, the processing assembly 5 includes a processing table 52, on which a guide rail is provided, and a first mounting cylinder 53 and a second mounting cylinder 54 are also provided on the processing table, a first mounting seat 531 is provided on the piston rod of the first mounting cylinder 53, and the first mounting seat 531 is used to place the needle tube, and a second mounting seat 541 is provided on the piston rod of the second mounting cylinder 54, and the second mounting seat 541 is used to place the handle, and the first mounting seat 531 and the second mounting seat 541 are both slidably connected to the guide rail, a clamping cylinder 551 is also provided on the first mounting seat 531, and a rubber head 552 is provided on the piston rod of the clamping cylinder 551, and the rubber head 552 is used to abut the needle tube, and a flattening cylinder 56 is also provided on the second mounting seat, and the flattening cylinder 56 is used to flatten the tail of the needle tube. During specific implementation, the first mounting seat 531 and the second mounting seat 541 can move toward each other under the push of the corresponding cylinders. During the installation process, the needle tube can be inserted into the handle, and then the tail of the needle tube can be flattened by the flattening cylinder 56.

[0044] like Figure 3 and Figure 5As shown, the processing assembly 5 also includes a glue dripping rack 51, which is arranged on the upper side of the processing table 52. The processing table 52 is also provided with a needle clamp 521 for clamping the needle tube. The glue dripping rack 51 is provided with a glue dripping tank 511 and a glue dripping head 512. The glue dripping tank 511 is used to store UV glue. The glue dripping head 512 is connected to the glue dripping tank 511 through a hose. The glue dripping head 512 is rotatably connected to the glue dripping rack 51 and is adjustable. The glue dripping head 512 is used to drip UV glue toward the handle. In specific implementation, during processing, the needle tube needs to be first sent into the handle by the needle clamp 521, and then the needle tube is flattened, and then the needle tube is clamped out and lifted, and glue is dripped, and then the processed needle tube is sent out.

[0045] like Figure 3 and Figure 5 As shown, the rotating material taking disc 41 is also provided with ultraviolet lamps 411 corresponding to each needle tube clamp 42, and the ultraviolet lamps 411 are used to irradiate the connection between the needle tube 2 and the handle 1. In specific implementation, the needle tube 2 and the handle 1 can be connected during the rotation of the needle tube clamp 42, and the connected needle tube 2 and the handle 1 can also be rotated, and the product can be irradiated with ultraviolet light to accelerate the curing of the UV glue.

[0046] like Figure 3 and Figure 6 As shown, the feeding assembly 3 includes a loading platform 31, a feeding rack 32, and a feeding rack 33. The loading platform 31 is arranged between the feeding rack 32 and the feeding rack 33. A plurality of feeding channels 311 are arranged on the loading platform 31. The feeding channels 311 penetrate the loading platform 31. The feeding channels 311 are arranged at equal intervals along the vertical direction of the loading platform 31. A servo motor 34 for driving the loading platform 31 to move up and down is arranged on the lower side of the loading platform 31. A feeding cylinder 321 is arranged on the feeding rack 32. The piston rod of the feeding cylinder 321 corresponds to the feeding channel 311 of the loading platform 31. A feeding pipe 331 is arranged on the feeding rack 33. A feeding channel 332 is opened in the feeding pipe 331. The feeding channel 332 penetrates the feeding pipe 331 and corresponds to the needle tube clamp 42 on the rotating material picking tray 41. In specific implementation, when feeding, first place multiple needle tubes 2 on the loading platform 31 manually or mechanically. When feeding, the needle tube 2 in each feed channel 311 can be pushed by the feeding cylinder 321. The feeding cylinder 321 passes through the feed channel 311 of the loading platform 31 and pushes the needle tube 2 into the feeding tube 331. The needle tube 2 is sent out to the needle tube clamp 42 under the guidance of the feeding tube 331. At this time, continue to push the needle tube 2 to push the needle tube 2 out of the feeding tube 331, so that it can be clamped by the needle tube clamp 42. After pushing, you only need to control the loading platform 31 to move up and down to complete the discharge, thereby further improving the convenience of feeding.

[0047] like Figure 3 and Figure 6 As shown, a guide frame 35 is further provided at the lower side of the loading platform 31, a screw rod 341 is provided on the rotating shaft of the servo motor 34, the screw rod 341 is threadedly connected to the loading platform 31, a guide rod 351 is provided on the guide frame 35, the loading platform 31 is slidably connected to the guide rod 351, and when the screw rod 341 rotates, the loading platform 31 can slide up and down along the guide rod 351. In other embodiments, a cylinder can also be used to drive the loading platform 31.

[0048] like Figure 3 and Figure 6 As shown, a limit rod is provided at the lower side of the feed rack 32, and the limit rod is used to abut against the loading platform 31. When the limit rod abuts against the loading platform 31, the piston rod of the feed cylinder 321 is aligned with the material passage 311 at the top of the loading platform 31. In specific implementation, the limit rod can abut against the loading platform 31 to limit the displacement of the loading platform 31 and reduce the situation of excessive displacement.

[0049] like Figure 3 and Figure 6 As shown, the discharging assembly 6 includes a discharging conveyor belt 61 , and the discharging conveyor belt 61 is arranged on the lower side of the rotating material taking tray 41 .

[0050] Working principle: The needle tube 2 is sent into the loading platform 31 and pushed by the feeding cylinder 321. The feeding cylinder 321 can send the needle tube 2 to the processing component 5 for processing, and then the needle tube 2 and the handle are hinged by UV glue to realize processing.

[0051] Embodiment 3 like Figure 7 As shown, the main difference between the third embodiment and the second embodiment is that the third embodiment is further provided with a flattening assembly 7 beside the loading platform 31, and the flattening assembly 7 includes a flattening track 71, on which a flattening cylinder 72 is slidably provided, and a flattening block 73 is provided on the piston column of the flattening cylinder 72, and a flattening groove 731 corresponding to the shape of a needle tube is provided in the flattening block 73. An air pumping groove 732 is also provided in the flattening block 73, and the air pumping groove 732 is connected to the flattening groove 731, and an air pump is also provided on the flattening block 73 corresponding to the air pumping groove 732, and the air pump is connected to each air pumping groove 732. During specific implementation, in order to facilitate the alignment of the needle tube 2 and the handle, each needle tube 2 is preferably clamped in the same position when transported to the needle tube clamp 42. If the initial positions of each needle tube 2 are different, it is difficult for the feed cylinder 321 to push the needle tube 2 to the position required for processing. Therefore, providing a flattening block 73 is more convenient for flattening each needle tube 2, reducing the situation where the needle tube 2 has different positions when being fed into the needle tube clamp 42, and further increasing the accuracy of processing.

[0052] like Figure 7As shown, the flattening block 73 is also provided with an adsorption groove 733, one end of which is connected to the air extraction groove 732, and the other end of the air extraction groove 732 is arranged close to the loading platform 31. When the flattening block 73 abuts against the loading platform 31, the air extraction groove 732 is blocked. In specific implementation, when the flattening block 73 abuts against the loading platform 31, the flow channel is blocked, and no air leakage occurs. The needle tube 2 can be normally drawn out for flattening. However, when the flattening block 73 is not abutted, air will be extracted from the adsorption groove 733 during air extraction, making it difficult to extract the needle tube 2. Therefore, it is impossible to extract air to flatten the needle tube 2, and air extraction can only be continued after the flattening block 73 abuts, thereby further improving the accuracy of flattening. In other embodiments, a rubber pad can also be arranged at the position of the loading platform 31 corresponding to the adsorption groove 733 to increase the sealing during adsorption and further reduce air leakage.

[0053] Working principle: The basic working principle is the same as that of the second embodiment, but on the basis of the second embodiment, a component capable of flattening each needle tube 2 is added, so that each needle tube 2 can be more accurately delivered into the needle tube clamp 42 at the same position when clamped.

[0054] Embodiment 4 like Figure 8 As shown, the main difference between Example 4 and Example 3 is that a matching groove 734 is provided in the loading platform 31 of Example 4 corresponding to the adsorption groove 733, one end of the matching groove 734 is connected with the material transfer channel 311, and one end of the matching groove 734 can be connected with the matching groove 734, and a rubber sheet 735 is fixedly provided on the side of the matching groove 734 close to the material transfer channel 311. During specific implementation, the rubber sheet 735 has a tendency to move toward the feed channel 311 under normal conditions, and can form friction with the needle tube 2 to a certain extent, thereby reducing the movement speed of the needle tube 2. However, it is difficult for the feed cylinder 321 to play a significant deceleration role under the movement of a longer distance. Therefore, when flattening is performed, when the flattening block 73 is not in contact with the loading platform 31, the rubber sheet 735 can prevent the air pump from sucking out the needle tube 2, and can also prevent the flattening speed from being too fast and causing an impact. At the same time, the air pump can suck the rubber sheet 735 toward the matching groove 734 when inhaling, thereby reducing the impact on flattening. After flattening is completed, the position of the needle tube 2 can also be stabilized, further improving the accuracy of processing.

[0055] Working principle: The basic working principle is the same as that of the third embodiment, but a matching groove 734 and a rubber sheet 735 are added to determine whether flattening is accurate, which further improves the flattening effect and thus improves the accuracy of subsequent processing.

[0056] The above are preferred embodiments of the present application, and the protection scope of the present application is not limited thereto. Therefore, any equivalent changes made according to the structure, shape, and principle of the present application should be included in the protection scope of the present application.

Claims

1. An indwelling needle tube assembly with high connection strength, characterized in that: The invention comprises a handle (1) and a needle tube (2), wherein the needle tube (2) and the handle (1) are connected by UV glue, and a spring plate seat (22) is slidably connected to the needle tube (2), and an anti-needle puncture spring plate (221) is arranged in the spring plate seat (22). A slot (21) is provided on the needle tube (2) corresponding to the spring plate seat (22), and the spring plate seat (22) can be embedded in the slot (21). When the spring plate seat (22) is embedded in the slot (21), the anti-needle puncture spring plate (221) abuts against the end of the needle tube (2), and the end of the needle tube (2) passes through the spring plate seat (22).

2. A processing device for an indwelling needle tube assembly with high connection strength, comprising the indwelling needle assembly with high connection strength as claimed in claim 1, characterized in that: It also comprises a feeding assembly (3), a clamping assembly (4), a processing assembly (5), and a discharging assembly (6), wherein the feeding assembly (3) is used to feed the connecting needle tube (2), and the discharging assembly (6) is used to deliver the processed product; The clamping assembly (4) comprises a rotating frame and a rotating material taking disk (41), wherein the rotating material taking disk (41) is rotatably connected to the rotating frame, and a plurality of needle tube clamps (42) and a rotating motor (43) are arranged on the rotating material taking disk (41), wherein the needle tube clamps (42) are spaced circumferentially along the rotating material taking disk (41), and the needle tube clamps (42) are used to clamp the needle tube (2), and the rotating motor (43) is arranged corresponding to each needle tube clamp (42) and is used to drive the needle tube clamps (42) to rotate; The processing assembly (5) comprises a processing table (52), on which a guide rail is arranged, and on which a first mounting cylinder (53) and a second mounting cylinder (54) are arranged, and on which a piston rod of the first mounting cylinder (53) is arranged a first mounting seat (531), and the first mounting seat (531) is used to place a needle tube, and on the piston rod of the second mounting cylinder (54) is arranged a second mounting seat (541), and the second mounting seat (541) is used to place a handle, and the first mounting seat (531) and the second mounting seat (541) are both slidably connected to the guide rail, and on the first mounting seat (531) is also arranged a clamping cylinder (551), and on the piston rod of the clamping cylinder (551) is arranged a rubber head (552), and the rubber head (552) is used to abut the needle tube, and on the second mounting seat is also arranged a flattening cylinder (56), and the flattening cylinder (56) is used to flatten the tail of the needle tube; The processing assembly (5) further comprises a glue dripping rack (51), wherein the glue dripping rack (51) is arranged on the upper side of the processing table (52), and a needle tube clamp (521) for clamping a needle tube is also arranged on the processing table (52), and a glue dripping tank (511) and a glue dripping head (512) are arranged on the glue dripping rack (51), wherein the glue dripping tank (511) is used to store UV glue, and the glue dripping head (512) is connected to the glue dripping tank (511) through a hose, and the glue dripping head (512) is rotatably connected to the glue dripping rack (51) and is adjustable, and the glue dripping head (512) is used to drip UV glue toward the handle.

3. The high connection strength indwelling needle tube assembly processing equipment according to claim 2 is characterized in that: The feeding assembly (3) comprises a loading platform (31), a feeding frame (32), and a feeding frame (33); the loading platform (31) is arranged between the feeding frame (32) and the feeding frame (33); a plurality of material transfer channels (311) are arranged on the loading platform (31); the material transfer channels (311) penetrate the loading platform (31); the material transfer channels (311) are arranged at equal intervals along the vertical direction of the loading platform (31); a gear for driving the loading platform (31) is arranged at the lower side of the loading platform (31). A servo motor (34) is provided for the up and down movement of the platform (31); a feeding cylinder (321) is provided on the feeding frame (32); a piston rod of the feeding cylinder (321) is provided corresponding to the material passage (311) of the loading platform (31); a feeding pipe (331) is provided on the feeding frame (33); a feeding channel (332) is provided in the feeding pipe (331); the feeding channel (332) penetrates the feeding pipe (331) and corresponds to the needle clamp (42) on the rotating material taking disk (41).

4. The high connection strength indwelling needle tube assembly processing equipment according to claim 3 is characterized in that: A guide frame (35) is also provided on the lower side of the loading platform (31); a screw rod (341) is provided on the rotating shaft of the servo motor (34); the screw rod (341) is threadedly connected to the loading platform (31); a guide rod (351) is provided on the guide frame (35); the loading platform (31) is slidably connected to the guide rod (351); when the screw rod (341) rotates, the loading platform (31) can slide up and down along the guide rod (351).

5. The high connection strength indwelling needle tube assembly processing equipment according to claim 3 is characterized in that: A limiting rod is provided on the lower side of the feeding rack (32), and the limiting rod is used to abut against the loading platform (31). When the limiting rod abuts against the loading platform (31), the piston rod of the feeding cylinder (321) is aligned with the material transfer channel (311) at the top of the loading platform (31).

6. The high connection strength indwelling needle tube assembly processing equipment according to claim 3 is characterized in that: A flattening assembly (7) is also arranged next to the loading platform (31), and the flattening assembly (7) comprises a flattening track (71), a flattening cylinder (72) is slidably arranged on the flattening track (71), a flattening block (73) is arranged on the piston column of the flattening cylinder (72), and a flattening groove (731) corresponding to the shape of a needle tube is opened in the flattening block (73).

7. The high connection strength indwelling needle tube assembly processing equipment according to claim 6 is characterized in that: The flattening block (73) is further provided with an air extraction groove (732), the air extraction groove (732) being in communication with the flattening groove (731), and an air pump is further provided on the flattening block (73) corresponding to the air extraction groove (732), the air pump being connected to each air extraction groove (732).

8. The device for processing an indwelling needle tube assembly with high connection strength according to claim 7, characterized in that: The flattening block (73) is also provided with an adsorption groove (733), one end of which is connected to the air extraction groove (732), and the other end of which is arranged close to the loading platform (31). When the flattening block (73) abuts against the loading platform (31), the air extraction groove (732) is blocked.

9. The high connection strength indwelling needle tube assembly processing equipment according to claim 1 is characterized in that: The rotating material taking disc (41) is also provided with an ultraviolet lamp (411) corresponding to each needle tube clamping claw (42), and the ultraviolet lamp (411) is used to irradiate the connection between the needle tube (2) and the handle.

10. The high connection strength indwelling needle tube assembly processing equipment according to claim 1, characterized in that: The discharging assembly (6) comprises a discharging conveyor belt (61), and the discharging conveyor belt (61) is arranged on the lower side of the rotating material taking tray (41).

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