Atomizer core wire stripping machine

Abstract

The application provides an atomizing core wire stripping machine, which comprises a rack, a positioning seat arranged on the rack, a transverse driving mechanism arranged on the rack, a first connecting frame, a first part of which is arranged on the rack and can move transversely in a first direction, and a second part of which is arranged on an output end of the transverse driving mechanism, a lifting driving mechanism arranged on the rack, a pressing assembly arranged on an output end of the lifting driving mechanism and driven by the lifting driving mechanism to lift, which is used for pressing the atomizing core wire on the positioning seat, a second connecting frame, a first part of which is arranged on the output end of the transverse driving mechanism and can move vertically, and a second part of which is arranged on the output end of the lifting driving mechanism and can move transversely in the first direction, so that the second connecting frame can be driven by the transverse driving mechanism to move transversely and can be driven by the lifting driving mechanism to lift, a lower blade arranged on the first connecting frame, and an upper blade arranged on the second connecting frame. The quality consistency of the atomizing core wire can be improved.

Description

Technical Field

[0001] This application relates to a stripping machine, and more particularly to a stripping machine for atomized core wires. Background Technology

[0002] Electronic atomizers are electronic products that mimic the operation of traditional cigarettes, and the performance of their core component, the atomizer coil, is crucial. To achieve the heating function, the atomizer coil needs to be connected to a power source, which requires stripping the insulation from both sides of the coil wire.

[0003] Currently, this process relies on manual labor: operators use wire strippers to peel off the insulation from both ends of the atomized core wire. However, due to differences in the techniques used by different operators, the length of insulation peeled off often varies, and the internal conductors are easily damaged during the process. These problems lead to unstable power supply, frequent short circuits, and other defects, resulting in a high rework rate and seriously affecting the consistency of product quality. Summary of the Invention

[0004] This application provides an atomizing core wire stripping machine to solve the problems existing in related technologies. The technical solution is as follows: This application provides an atomizing core wire stripping machine, including: frame; A positioning seat is disposed on the frame and is used to support the atomizing core wire so that the atomizing core wire is placed horizontally on the positioning seat. A transverse drive mechanism is disposed on the frame; A first connecting frame, a first part of which is laterally movable along a first direction is disposed on the frame, and a second part of which is disposed at the output end of the transverse drive mechanism. The first connecting frame is driven by the transverse drive mechanism to move laterally. A lifting drive mechanism is provided on the frame; A pressing assembly is disposed at the output end of the lifting drive mechanism. The pressing assembly is driven by the lifting drive mechanism to move up and down. The pressing assembly is used to press the atomizing core wire against the positioning seat. The second connecting frame has a first part that is vertically movable at the output end of the transverse drive mechanism, and a second part that is laterally movable along the first direction at the output end of the lifting drive mechanism, so that the second connecting frame can be driven laterally by the transverse drive mechanism and can be driven to rise and fall by the lifting drive mechanism. The lower blade is disposed on the first connecting frame; The upper blade is disposed on the second connecting frame, and the upper blade and the lower blade are staggered along the first direction; The upper blade is used to cut downwards the upper sheath of the atomizing core wire target area pressed by the clamping component onto the positioning seat, and the lower blade is used to cut upwards the lower sheath of the atomizing core wire target area pressed down by the upper blade. The lower blade cooperates with the upper blade to jointly peel off the cut target sheath.

[0005] In one embodiment, the number of the first connecting frame, the second connecting frame, the upper blade, and the lower blade are all two; The two first connecting frames are placed on opposite sides of the positioning seat, and each of the lower blades is disposed on a corresponding first connecting frame; Two second connecting frames are placed on opposite sides of the clamping assembly. Each upper blade is disposed on a corresponding second connecting frame. The two upper blades are used to cut the insulation at both ends of the atomizing core wire on the positioning seat. Each upper blade is used to cooperate with the corresponding lower blade to peel off the cut end insulation together.

[0006] In one embodiment, the upper blade has an inverted V-shaped cutting edge, and the lower blade has a V-shaped cutting edge.

[0007] In one embodiment, the atomizing core wire stripping machine further includes: A first guide component is disposed on the frame and extends along a first direction; A first sliding component is disposed on a first part of the first connecting frame, and the first sliding component is slidably engaged with the first guide component; A second guide component is disposed at the output end of the transverse drive mechanism and extends vertically. The second sliding component is disposed on the first part of the second connecting frame, and the second sliding component is slidably engaged with the second guide component; A third guide component is disposed at the output end of the lifting drive mechanism and extends along a first direction; The third sliding component is disposed on the second part of the second connecting frame, and the second sliding component and the third guide component are slidably engaged.

[0008] In one embodiment, the frame is provided with a fourth guide member that extends vertically; The atomizing core wire stripping machine also includes: A fourth sliding component is connected to the third guide component, and the fourth sliding component and the fourth guide component are slidably engaged.

[0009] In one embodiment, there are two fourth guide components and two fourth sliding components. The two fourth guide components are respectively placed on both sides of the lifting drive mechanism along the first direction. Each fourth sliding component is connected to the third guide component, and each fourth sliding component is slidably engaged with the corresponding fourth guide component.

[0010] In one embodiment, the fourth guide component has a guide hole; The fourth sliding component is a guide sleeve, which is slidably inserted into the guide hole. The top of the guide sleeve is provided with a positioning component. When the lifting drive mechanism drives the upper blade to cut the insulation of the atomizing core wire on the positioning seat, the positioning component abuts against the frame.

[0011] In one embodiment, the positioning component has a first threaded hole, and the guide sleeve has a threaded portion that is adapted to the first threaded hole to connect the positioning component and the guide sleeve together.

[0012] In one embodiment, the first sliding component is provided with a feeding groove, the feeding groove is located near the lower blade, and the feeding groove is obliquely downward toward the outside of the frame. The feeding groove is used to receive the wire sheath stripped by the lower blade and the upper blade and guide the wire sheath to the outside of the frame. And / or, the first guide component, the second guide component, and the third guide component are all guide rails, and the first sliding component, the second sliding component, and the third sliding component are all sliders.

[0013] In one embodiment, the atomizing core wire stripping machine further includes: A connecting seat is movably disposed on the frame along a first direction, and the connecting seat supports the transverse drive mechanism; A locking component that detachably connects the connecting seat to the frame.

[0014] In one embodiment, the frame has a second threaded hole; The connector has a connecting hole, the dimension of which along the first direction is greater than the dimension perpendicular to the first direction; The head of the locking component is located on the side of the connecting seat away from the frame. The outer diameter of the head of the locking component is larger than the dimension of the connecting hole perpendicular to the first direction. The rod of the locking component moves through the connecting hole in the first direction and is adapted to the second threaded hole.

[0015] The advantages or beneficial effects of the above technical solutions include at least the following: This invention discloses an atomizing wire stripping machine. Through the coordinated operation of a frame, positioning seat, lateral drive mechanism, first connecting frame, lifting drive mechanism, clamping assembly, second connecting frame, lower blade, and upper blade, it can automatically cut and peel off the wire insulation at the target location of the atomizing wire, replacing manual stripping. This improves stripping efficiency and enhances the stability of stripping quality, ensuring uniform stripping length and preventing damage to the internal conductor, thereby improving the consistency of atomizing wire quality. Specifically, firstly, the lifting drive mechanism drives the clamping assembly, second connecting frame, and upper blade to descend synchronously until the clamping assembly presses the atomizing wire against the positioning seat. Simultaneously, the upper blade cuts downwards at the upper part of the wire insulation at the target location, which is clamped by the clamping assembly. During this process, the upper blade pushes downwards at the target location of the atomizing wire, passively moving it to the lower blade, ensuring that the lower blade can cut the lower part of the wire insulation pressed down by the upper blade, until the wire insulation at the target location is completely severed. Subsequently, the lateral drive mechanism drives the first connecting frame, lower blade, second connecting frame, and upper blade to move along the first direction, using the coordinated action of the upper and lower blades to peel the cut insulation from the atomizing core wire. The entire cutting and peeling process requires no manual intervention, exhibiting a high degree of automation and effectively ensuring the consistency of the atomizing core wire quality.

[0016] The above overview is for illustrative purposes only and is not intended to be limiting in any way. In addition to the illustrative aspects, embodiments, and features described above, further aspects, embodiments, and features of this application will become readily apparent from the accompanying drawings and the following detailed description. Attached Figure Description

[0017] In the accompanying drawings, unless otherwise specified, the same reference numerals throughout the various drawings denote the same or similar parts or elements. These drawings are not necessarily drawn to scale. It should be understood that these drawings depict only some embodiments disclosed in this application and should not be construed as limiting the scope of this application.

[0018] Figure 1 This is a three-dimensional structural diagram of the atomizing core wire stripping machine of the present invention from a first-view perspective. Figure 2 This is a three-dimensional structural diagram of the atomizing core wire stripping machine of the present invention from a second perspective. Figure 3 for Figure 2 A magnified view of section A in the image.

[0019] Figure Labels 1. Frame; 11. Fourth guide component; 2. Positioning seat; 21. Positioning groove; 3. Lateral drive mechanism; 4. First connecting frame; 5. Lifting drive mechanism; 6. Pressing assembly; 61. Support seat; 62. Pressing component; 63. Elastic component; 7. Second connecting frame; 8. Lower blade; 81. V-shaped blade; 9. Upper blade; 91. Inverted V-shaped blade; 10. First guide component; 20. First sliding component; 30. Second guide component; 40. Second sliding component; 50. Third guide component; 60. Third sliding component; 70. Fourth sliding component; 80. Positioning component; 90. Feed trough; 100. Connecting seat; 1001. Connecting hole; 200. Third connecting frame; 300. Fourth connecting frame; 400. Atomizing core wire. Detailed Implementation

[0020] In the following description, only certain exemplary embodiments are briefly described. As those skilled in the art will recognize, the described embodiments can be modified in various ways without departing from the spirit or scope of this application. Therefore, the drawings and description are considered to be exemplary in nature and not restrictive.

[0021] See Figures 1-3 This invention illustrates a preferred embodiment of an atomizing wire stripping machine, comprising: Rack 1; Positioning seat 2 is set on frame 1 and is used to support atomizing core wire 400 so that atomizing core wire 400 is placed horizontally on positioning seat 2; Transverse drive mechanism 3 is mounted on frame 1; The first connecting frame 4 has a first part that is laterally movable along the first direction and is mounted on the frame 1. The second part of the first connecting frame 4 is mounted on the output end of the transverse drive mechanism 3. The first connecting frame 4 is driven by the transverse drive mechanism 3 to move laterally. Lifting drive mechanism 5 is mounted on frame 1; The pressing component 6 is located at the output end of the lifting drive mechanism 5. The pressing component 6 is driven by the lifting drive mechanism 5 to lift and lower. The pressing component 6 is used to press the atomizing core wire 400 against the positioning seat 2 to prevent the atomizing core wire 400 from falling off the positioning seat 2. The second connecting frame 7 has a first part that is vertically movable and is disposed at the output end of the transverse drive mechanism 3, and a second part that is horizontally movable along the first direction and is disposed at the output end of the lifting drive mechanism 5, so that the second connecting frame 7 can be driven by the transverse drive mechanism 3 to move horizontally and can be driven by the lifting drive mechanism 5 to lift. Lower blade 8 is mounted on the first connecting frame 4; Upper blade 9 is disposed on the second connecting frame 7, and upper blade 9 and lower blade 8 are staggered along the first direction; The upper blade 9 is used to cut the upper part of the atomizing core wire 400 at the target location pressed by the clamping component 6 onto the positioning seat 2. The lower blade 8 is used to cut the lower part of the atomizing core wire 400 at the target location pressed down by the upper blade 9. The upper blade 9 and the lower blade 8 work together to cut the wire at the same target location of the atomizing core wire 400. The lower blade 8 works together to peel off the cut target wire along the first direction.

[0022] The atomizing wire stripping machine of this invention, through the coordinated operation of a frame 1, a positioning seat 2, a transverse drive mechanism 3, a first connecting frame 4, a lifting drive mechanism 5, a pressing component 6, a second connecting frame 7, a lower blade 8, and an upper blade 9, can automatically cut and peel off the wire insulation at the target location of the atomizing wire 400, replacing manual stripping. This improves stripping efficiency and enhances the stability of stripping quality, ensuring uniform stripping length without damaging the internal conductor, thereby improving the consistency of the atomizing wire 400's quality. Specifically, firstly, the lifting drive mechanism 5 drives the pressing component 6, the second connecting frame 7, and the upper blade 9 to descend synchronously until the pressing component 6 presses the atomizing wire 400 against the positioning seat 2. Simultaneously, the upper blade 9 cuts downwards at the upper part of the wire insulation at the target location of the atomizing wire 400, which is pressed against the positioning seat 2 by the pressing component 6. During this process, the upper blade 9 pushes downwards onto the target portion of the atomizing core wire 400, causing the target portion of the atomizing core wire 400 to passively move down to the lower blade 8. This ensures that the lower blade 8 can cut the lower sheath of the atomizing core wire 400 pressed down by the upper blade 9, until the sheath at the target portion is completely cut off. Subsequently, the lateral drive mechanism 3 drives the first connecting frame 4, the lower blade 8, the second connecting frame 7, and the upper blade 9 to move along the first direction. The coordinated action of the upper blade 9 and the lower blade 8 peels the cut sheath off the atomizing core wire 400. The entire cutting and peeling process requires no manual intervention, exhibiting a high degree of automation and effectively ensuring the consistency of the atomizing core wire 400's quality.

[0023] See Figure 3 In one embodiment, the top of the positioning seat 2 has a positioning groove 21 that extends through both sides of the positioning seat 2 along the first direction. The positioning groove 21 is used to cooperate with the atomizing core wire 400 to achieve reliable positioning of the atomizing core wire 400.

[0024] See Figures 1-3 In one embodiment, the clamping assembly 6 includes: Support base 61 is provided at the output end of lifting drive mechanism 5 so that the entire pressing assembly 6 can be raised and lowered with the output end of lifting drive mechanism 5. A clamping component 62, the rod of which is vertically and flexibly mounted on a support base 61, and the clamping part of the clamping component 62 located below the support base 61, is used to clamp the atomizing core wire 400 to the positioning seat 2; and The elastic component 63 is sleeved on the rod of the clamping component 62. The elastic component 63 is located between the support base 61 and the clamping part of the clamping component 62. The elastic component 63 is used to provide a continuous downward elastic force to the clamping part of the clamping component 62, so that the clamping part can adaptively apply a stable and flexible clamping force through elastic deformation after contacting the atomizing core wire 400. This ensures that the atomizing core wire 400 is reliably fixed during the cutting process and avoids damage to the wire that may be caused by rigid clamping. Thus, the integrity of the atomizing core wire 400 is protected while achieving effective positioning.

[0025] Specifically, the support base 61 has a guide channel (not shown in the figure), which has a lower section and an upper section connected in sequence, and the inner diameter of the upper section is larger than the inner diameter of the lower section. The rod of the clamping member 62 has a lower part and an upper part connected in sequence. The lower part is slidably inserted through the upper section, and the upper part is slidably disposed in the upper section. The outer diameter of the upper part is larger than the inner diameter of the lower section, so as to prevent the rod of the clamping member 62 from disengaging from the support base 61 downward.

[0026] Specifically, the elastic component 63 is preferably a spring. Of course, in other embodiments, the elastic component 63 can also be any elastic member such as an elastic rubber sleeve or a spring sheet.

[0027] Of course, the clamping component 6 can be an elastic component such as a rubber pad or silicone pad, as long as it can protect the integrity of the atomizing core wire 400 while achieving effective positioning.

[0028] In one embodiment, both the lateral drive mechanism 3 and the lifting drive mechanism 5 are preferably cylinders to simplify the overall structure of the atomizing wire stripping machine and reduce costs. Of course, in other embodiments, the lateral drive mechanism 3 and the lifting drive mechanism 5 can also be any of the following: a hydraulic cylinder, an electric push rod, or a combination of a motor and a lead screw and nut pair.

[0029] See Figures 1-2 In one embodiment, the number of the first connecting frame 4, the second connecting frame 7, the upper blade 9, and the lower blade 8 are all two; Two first connecting frames 4 are placed on opposite sides of the positioning seat 2, and each lower blade 8 is set on a corresponding first connecting frame 4; Two second connecting frames 7 are positioned on opposite sides of the clamping assembly 6. Each upper blade 9 is mounted on a corresponding second connecting frame 7. The two upper blades 9 are used to cut the insulation at both ends of the atomizing core wire 400 on the positioning seat 2. Each upper blade 9 cooperates with the corresponding lower blade 8 to peel off the cut end insulation. By setting independent first connecting frames 4 and lower blades 8, and second connecting frames 7 and upper blades 9 on both sides of the positioning seat 2 and the clamping assembly 6, the two upper blades 9 can simultaneously cut the insulation at both ends of the atomizing core wire 400 and cooperate with the lower blade 8 on the same side to complete the insulation peeling. This achieves synchronous stripping of both ends of the atomizing core wire 400, significantly improving processing efficiency and ensuring the consistency of the stripped length and quality at both ends.

[0030] See Figure 3 In one embodiment, the upper blade 9 is provided with an inverted V-shaped cutting edge 91, and the lower blade 8 is provided with a V-shaped cutting edge 81. By providing an inverted V-shaped cutting edge 91 to the upper blade 9 and a V-shaped cutting edge 81 to the lower blade 8, the two blades can form complementary blade guiding and closing effects during the cutting process. When the inverted V-shaped cutting edge 91 cuts downwards, it can initially position and cut into the upper part of the wire sheath, while the V-shaped cutting edge 81 supports from below and closes to cut into the lower part of the wire sheath. The two blades work together to form a complete cutting enclosure, thereby more stably constraining the position of the atomized core wire 400 during cutting, effectively preventing the wire sheath from slipping or the cut from being misaligned, improving cutting accuracy and consistency, and reducing the risk of damage to the internal conductor.

[0031] See Figures 1-2 In one embodiment, the atomizing core wire stripping machine further includes: A first guide component 10 is disposed on the frame 1 and extends along a first direction; The first sliding component 20 is disposed on the first part of the first connecting frame 4, and the first sliding component 20 is slidably engaged with the first guide component 10; The second guide component 30 is disposed at the output end of the transverse drive mechanism 3 and extends vertically. The second sliding component 40 is disposed on the first part of the second connecting frame 7, and the second sliding component 40 is slidably engaged with the second guide component 30; The third guide component 50 is disposed at the output end of the lifting drive mechanism 5 and extends along the first direction. The third sliding component 60 is disposed on the second part of the second connecting frame 7, and the second sliding component 40 and the third guide component 50 are slidably engaged. Thus, the first connecting frame 4 slides with the first guide component 10 fixed on the frame 1 and extending in the first direction through the first sliding component 20 of its first part; the second connecting frame 7 slides with the second guide component 30 located at the output end of the horizontal drive mechanism 3 and extending in the vertical direction through the second sliding component 40 of its first part, and at the same time, the third sliding component 60 of its second part slides with the third guide component 50 located at the output end of the lifting drive mechanism 5 and also extending in the first direction. This creates multiple and independent sliding constraints in the horizontal and vertical directions for the first connecting frame 4, the lower blade 8, the second connecting frame 7 and the upper blade 9 in the horizontal movement, as well as for the second connecting frame 7 and the upper blade 9 in the lifting movement. This effectively limits the degree of freedom of each upper blade 9 and lower blade 8 in the non-intended direction, which can enhance the rigidity and stability of the entire atomized core wire 400 stripper in the compound movement, and ensure the accuracy of the trajectory and the reliability of the posture of the upper blade 9 and lower blade 8 in the entire process of pressing, cutting and stripping, thereby improving the overall accuracy and repeatability of the stripping operation.

[0032] See Figures 1-2 In one embodiment, the frame 1 is provided with a fourth guide member 11, which extends vertically; The atomizer core wire stripper also includes: The fourth sliding component 70 is connected to the third guide component 50, and the fourth sliding component 70 and the fourth guide component 11 are slidably engaged. By adding a vertically extending fourth guide component 11 to the frame 1, and making the third guide component 50 located at the output end of the lifting drive mechanism 5 form a sliding engagement with the fourth guide component 11 through the fourth sliding component 70, independent and direct auxiliary guidance and support from the main body of the frame 1 are provided for the lifting motion. This effectively constrains the lateral degree of freedom of the output end of the lifting drive mechanism 5 during movement, significantly enhances the rigidity and anti-eccentric load capacity of the lifting process, ensures the accuracy of the trajectory and the stability of the posture of the clamping component 6 and the upper blade 9 during the lifting motion, and thus improves the consistency of cutting positioning and the motion accuracy of the entire atomizing core wire stripping machine.

[0033] See Figure 1In one embodiment, there are two fourth guide components 11 and two fourth sliding components 70. The two fourth guide components 11 are respectively placed on both sides of the lifting drive mechanism 5 along the first direction. Each fourth sliding component 70 is connected to the third guide component 50, and each fourth sliding component 70 is slidably engaged with the corresponding fourth guide component 11. In this way, by symmetrically arranging two sets of fourth guide components 11 and their cooperating fourth sliding components 70 on both sides of the lifting drive mechanism 5 along the first direction, a bilateral balanced sliding constraint is formed on the third guide component 50, thereby effectively preventing eccentric loading or torsional deformation during the lifting process. This significantly improves the stability and guiding rigidity of the lifting mechanism in the vertical direction, further ensuring the vertical accuracy of the pressing and cutting actions and the overall reliability of the operation.

[0034] See Figure 1 Specifically, in one embodiment, the fourth guide member 11 has a guide hole; The fourth sliding component 70 is a guide sleeve, which can be slidably inserted into the guide hole. A positioning component 80 is provided on the top of the guide sleeve. When the lifting drive mechanism 5 drives the upper blade 9 to cut the sheath of the atomized core wire 400 on the positioning seat 2, the positioning component 80 abuts against the frame 1. In this way, by adopting the structure of the fourth guide component 11 with the guide hole and the guide sleeve as the fourth sliding component 70 mutually interlocking, precise sliding guidance is achieved during the lifting process. At the same time, by setting the positioning component 80 on the top of the guide sleeve, the positioning component 80 can abut against the frame 1 when the cutting force is applied, forming a stable rigid support and hard positioning, thereby effectively resisting the reaction force generated during the cutting process and preventing the guide mechanism (including the fourth guide component 11 and the fourth sliding component 70) from shifting or vibrating, significantly improving the smoothness and positional accuracy of the cutting action.

[0035] In one embodiment, the positioning component 80 has a first threaded hole (not shown in the figure), and the guide sleeve has a threaded portion (not shown in the figure). The threaded portion is adapted to the first threaded hole to connect the positioning component 80 and the guide sleeve together. The engagement of the threaded portion with the first threaded hole securely connects the positioning component 80 to the top of the guide sleeve, ensuring not only the rigidity of the connection but also allowing for fine-tuning of the height of the positioning component 80. This enables precise and reliable contact with the frame 1 during cutting, effectively transmitting and resisting the cutting reaction force, enhancing the rigidity and stability of the entire guiding system, and improving the equipment's impact resistance and working accuracy. Furthermore, the threaded connection also allows for the detachability and adjustability of the positioning component 80. When it is necessary to raise the upper blade 9 to avoid excessive cutting depth, a shim can be added to the guide sleeve; when it is necessary to lower the upper blade 9 to avoid excessive cutting shallowness, the bottom of the positioning component 80 can be thinned by grinding. This structure provides a simple and reliable two-way fine-tuning method for the blade cutting depth, enhancing the equipment's adaptability to different process requirements.

[0036] See Figures 1-3 In one embodiment, the first sliding component 20 is provided with a feeding trough 90, which is located near the lower blade 8 and slopes downwards towards the outside of the frame 1. The feeding trough 90 is used to receive the wire insulation stripped by the lower blade 8 and the upper blade 9 and guide the wire insulation to the outside of the frame 1. Thus, by providing a feeding trough 90 on the first sliding component 20 near the lower blade 8 and sloped downwards towards the outside of the frame 1, the stripped wire insulation can be automatically received and slid out of the frame 1 along the slope of the feeding trough 90 without manual cleaning. This achieves continuous stripping operations while maintaining the cleanliness of the work area, improving the degree of production automation and overall work efficiency.

[0037] See Figures 1-2 In one embodiment, the first guide component 10, the second guide component 30, and the third guide component 50 are all guide rails, and the first sliding component 20, the second sliding component 40, and the third sliding component 60 are all sliders. In this way, the mature and high-precision standardized linear motion pair of guide rail and slider is used to provide stable and reliable low-friction guidance for each moving component. This not only simplifies the structural design and assembly, but also significantly improves the smoothness of the blade's movement, the guiding accuracy, and the durability of the overall mechanical movement during the lateral and lifting processes.

[0038] Of course, in other embodiments, the first guide member 10, the second guide member 30 and the third guide member 50 can all be guide rods, and the first sliding member 20, the second sliding member 40 and the third sliding member 60 can all be guide sleeves.

[0039] See Figure 2 In one embodiment, the atomizing core wire stripping machine further includes: A connecting seat 100 is movably disposed on the frame 1 along a first direction, and the connecting seat 100 supports the transverse drive mechanism 3; A locking component detachably connects the connecting seat 100 to the frame 1. Thus, by designing the connecting seat 100, which supports the transverse drive mechanism 3, to be movable along the first direction on the frame 1, and by achieving a detachable and secure connection through the locking component, the overall position of the transverse drive mechanism 3 can be flexibly adjusted and reliably fixed according to different stripping length requirements, thereby enhancing the adaptability of the atomizing core wire stripper to products of different specifications.

[0040] See Figure 2 Specifically, in one embodiment, the frame 1 has a second threaded hole (not shown in the figure). The connector 100 has a connector hole 1001, the dimension of which along the first direction is greater than the dimension perpendicular to the first direction; The head of the locking component is located on the side of the connecting seat 100 away from the frame 1. The outer diameter of the head of the locking component is larger than the dimension of the connecting hole 1001 perpendicular to the first direction. The rod of the locking component moves through the connecting hole 1001 along the first direction and is adapted to the second threaded hole. Thus, by providing an elongated oval connecting hole 1001 with a larger dimension along the first direction on the connecting seat 100, and making the head of the locking component larger than the width of the connecting hole 1001, the rod of the locking component passes through the connecting hole 1001 and engages with the second threaded hole on the frame 1. This achieves the effect that the connecting seat 100 can be flexibly adjusted in the first direction and then firmly pressed onto the frame 1 by tightening the locking component. The structure is simple and easy to operate, ensuring both position adjustability and connection rigidity during operation.

[0041] For simplified installation, see Figures 1-2 In one embodiment, the atomizing core wire stripping machine further includes: The third connecting frame 200 is located at the output end of the transverse drive mechanism 3. The third connecting frame 200 supports the second guide component 30. That is, the third connecting frame 200 serves as a functional integration platform for the output end of the transverse drive mechanism 3, integrating the second guide component 30. This achieves the integration and structuring of functional modules, which not only simplifies the assembly relationship of each component and improves assembly efficiency and accuracy, but also facilitates the overall debugging and maintenance of each motion unit. At the same time, it enhances the overall rigidity of the actuator and ensures the coordination and stability of equipment operation. The fourth connecting frame 300 is located at the output end of the lifting drive mechanism 5. The fourth connecting frame 300 supports the pressing component 6 and the third guide component 50. At the same time, the fourth connecting frame 300 connects to the fourth sliding component 70. In other words, the fourth connecting frame 300 serves as a functional integration platform for the output end of the lifting drive mechanism 5, integrating the pressing component 6 and the third guide component 50. This achieves the integration and structuring of functional modules, which not only simplifies the assembly relationship of each component and improves assembly efficiency and accuracy, but also facilitates the overall debugging and maintenance of each motion unit. In addition, it enhances the overall rigidity of the actuator and ensures the coordination and stability of equipment operation.

[0042] In the description of this specification, the references to terms such as "one embodiment," "some embodiments," "example," "specific example," or "some examples," etc., indicate that a specific feature, structure, material, or characteristic described in connection with that embodiment or example is included in at least one embodiment or example of this application. Furthermore, the specific features, structures, materials, or characteristics described may be combined in any suitable manner in one or more embodiments or examples. Moreover, without contradiction, those skilled in the art can combine and integrate the different embodiments or examples described in this specification, as well as the features of those different embodiments or examples.

[0043] Furthermore, the terms "first" and "second" are used for descriptive purposes only and should not be construed as indicating or implying relative importance or implicitly specifying the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. In the description of this application, "a plurality of" means two or more, unless otherwise explicitly specified.

[0044] The above are merely specific embodiments of this application, but the scope of protection of this application is not limited thereto. Any person skilled in the art can easily conceive of various variations or substitutions within the technical scope disclosed in this application, and these should all be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. An atomizing core wire stripping machine, characterized in that, include: frame; A positioning seat is disposed on the frame and is used to support the atomizing core wire so that the atomizing core wire is placed horizontally on the positioning seat. A transverse drive mechanism is disposed on the frame; A first connecting frame, a first part of which is laterally movable along a first direction is disposed on the frame, and a second part of which is disposed at the output end of the transverse drive mechanism. The first connecting frame is driven by the transverse drive mechanism to move laterally. A lifting drive mechanism is provided on the frame; A pressing assembly is disposed at the output end of the lifting drive mechanism. The pressing assembly is driven by the lifting drive mechanism to move up and down. The pressing assembly is used to press the atomizing core wire against the positioning seat. The second connecting frame has a first part that is vertically movable at the output end of the transverse drive mechanism, and a second part that is laterally movable along the first direction at the output end of the lifting drive mechanism, so that the second connecting frame can be driven laterally by the transverse drive mechanism and can be driven to rise and fall by the lifting drive mechanism. The lower blade is disposed on the first connecting frame; The upper blade is disposed on the second connecting frame, and the upper blade and the lower blade are staggered along the first direction; The upper blade is used to cut downwards the upper sheath of the atomizing core wire target portion pressed by the clamping assembly onto the positioning seat, and the lower blade is used to cut upwards the lower sheath of the atomizing core wire target portion pressed down by the upper blade. The lower blade cooperates with the upper blade to jointly peel off the cut target sheath along the first direction.

2. The atomizing core wire stripping machine according to claim 1, characterized in that, The number of the first connecting frame, the second connecting frame, the upper blade, and the lower blade are all two; The two first connecting frames are placed on opposite sides of the positioning seat, and each of the lower blades is disposed on a corresponding first connecting frame; Two second connecting frames are placed on opposite sides of the clamping assembly, and each upper blade is disposed on a corresponding second connecting frame. The two upper blades are respectively used to cut the wire sheaths at both ends of the atomizing core wire on the positioning seat. Each upper blade is used to cooperate with the corresponding lower blade to peel off the cut end wire sheaths together. And / or, the upper blade is provided with an inverted V-shaped cutting edge, and the lower blade is provided with a V-shaped cutting edge.

3. The atomizing core wire stripping machine according to claim 1, characterized in that, The atomizing core wire stripping machine also includes: A first guide component is disposed on the frame and extends along a first direction; A first sliding component is disposed on a first part of the first connecting frame, and the first sliding component is slidably engaged with the first guide component; A second guide component is disposed at the output end of the transverse drive mechanism and extends vertically. The second sliding component is disposed on the first part of the second connecting frame, and the second sliding component is slidably engaged with the second guide component; A third guide component is disposed at the output end of the lifting drive mechanism and extends along a first direction; The third sliding component is disposed on the second part of the second connecting frame, and the second sliding component and the third guide component are slidably engaged.

4. The atomizing core wire stripping machine according to claim 3, characterized in that, The frame is provided with a fourth guide component, which extends vertically; The atomizing core wire stripping machine also includes: A fourth sliding component is connected to the third guide component, and the fourth sliding component and the fourth guide component are slidably engaged.

5. The atomizing core wire stripping machine according to claim 4, characterized in that, There are two fourth guide components and two fourth sliding components. The two fourth guide components are respectively placed on both sides of the lifting drive mechanism along the first direction. Each fourth sliding component is connected to the third guide component, and each fourth sliding component can slide with the corresponding fourth guide component.

6. The atomizing core wire stripping machine according to claim 5, characterized in that, The fourth guide component has a guide hole; The fourth sliding component is a guide sleeve, which is slidably inserted into the guide hole. The top of the guide sleeve is provided with a positioning component. When the lifting drive mechanism drives the upper blade to cut the insulation of the atomizing core wire on the positioning seat, the positioning component abuts against the frame.

7. The atomizing core wire stripping machine according to claim 6, characterized in that, The positioning component has a first threaded hole, and the guide sleeve has a threaded portion that is adapted to the first threaded hole to connect the positioning component and the guide sleeve together.

8. The atomizing core wire stripping machine according to claim 3, characterized in that, The first sliding component is provided with a feeding groove, which is located near the lower blade and is inclined downward toward the outside of the frame. The feeding groove is used to receive the wire sheath stripped by the lower blade and the upper blade and guide the wire sheath to the outside of the frame. And / or, the first guide component, the second guide component, and the third guide component are all guide rails, and the first sliding component, the second sliding component, and the third sliding component are all sliders.

9. The atomizing core wire stripping machine according to claim 3, characterized in that, The atomizing core wire stripping machine also includes: A connecting seat is movably disposed on the frame along a first direction, and the connecting seat supports the transverse drive mechanism; A locking component that detachably connects the connecting seat to the frame.

10. The atomizing core wire stripping machine according to claim 9, characterized in that, The frame has a second threaded hole; The connector has a connecting hole, the dimension of which along the first direction is greater than the dimension perpendicular to the first direction; The head of the locking component is located on the side of the connecting seat away from the frame. The outer diameter of the head of the locking component is larger than the dimension of the connecting hole perpendicular to the first direction. The rod of the locking component moves through the connecting hole in the first direction and is adapted to the second threaded hole.

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