Spiral winding device

Abstract

The utility model relates to the field of spiral machining devices, and provides a spiral winding device. The spiral winding device comprises a base; the first driving part is mounted on the base, the output end of the first driving part is in transmission connection with a sliding seat, a conical mounting shaft is arranged on the sliding seat, and the mounting shaft is used for mounting a spiral pipe; the second driving piece is mounted on the base, the output end of the second driving piece is in transmission connection with the to-be-wound piece, and the second driving piece is suitable for driving the to-be-wound piece to rotate; the first driving piece is suitable for driving the sliding base to act in the length direction of the to-be-wound piece so that the spiral pipe can be wound around the to-be-wound piece. According to the spiral winding device, the complexity of manual operation and the time cost are reduced, and the winding efficiency is improved; the winding uniformity and tightness are ensured, and the winding quality is improved; the structure is compact, the design is reasonable, the operation is simple and easy to understand, the skill requirements on operators are reduced, and the working efficiency is improved; winding efficiency can be improved, winding quality is guaranteed, adaptability is enhanced, and operation is simplified.

Description

Technical Field

[0001] This utility model relates to the field of spiral processing equipment, and provides a spiral winding device. Background Technology

[0002] Existing methods for winding spiral flexible hoses for axle temperature sensors primarily rely on manual operation. Operators hold the sensor cable and manually wind the spiral hose around its surface. This traditional method has several drawbacks. First, manual winding is slow and inefficient, failing to meet the demands of modern train production. Second, the operation is complex, prone to errors, requires significant manpower, and is labor-intensive. Third, due to the manual operation, the winding density, diameter, and angle of the spiral hose are difficult to control, resulting in inconsistent winding quality and affecting sensor performance and lifespan. Utility Model Content

[0003] This utility model provides a spiral winding device to solve the problem of low spiral tube winding efficiency in related technologies.

[0004] This utility model embodiment provides a spiral winding device, including:

[0005] Base;

[0006] A first driving component is mounted on the base. The output end of the first driving component is connected to a sliding seat. A tapered mounting shaft is provided on the sliding seat. The mounting shaft is used to mount a spiral tube.

[0007] A second driving component is installed on the base. The output end of the second driving component is connected to the component to be wound. The second driving component is adapted to drive the component to be wound to rotate.

[0008] The first driving member is adapted to drive the sliding seat to move along the length direction of the part to be wound so that the spiral tube is wound around the part to be wound.

[0009] According to one embodiment of the present invention, the output end of the first driving member is connected to a transmission member, the sliding seat is tractively connected to the transmission member, and the sliding seat is adapted to slide along the axial direction of the transmission member.

[0010] According to one embodiment of the present invention, a fixed seat is provided on the base, the transmission member is rotatably connected to the fixed seat, and limit members are provided at both ends of the transmission member along the length direction of the transmission member. When the sliding seat triggers the limit members, the first driving member reverses.

[0011] According to one embodiment of the present invention, a guide seat is provided on the sliding seat, and the guide seat is slidably connected to the workpiece to be wound.

[0012] According to one embodiment of the present invention, the guide seat includes:

[0013] A first seat body is mounted on the sliding seat;

[0014] A second seat is rotatably mounted on the first seat. The second seat is adapted to switch between a first position and a second position relative to the first seat. In the first position, the second seat and the first seat are adapted to form a guide groove for receiving the workpiece to be wound. In the second position, the workpiece to be wound is adapted to disengage from the guide seat.

[0015] According to one embodiment of the present invention, a first guide groove is provided on the first base body, and a second guide groove is provided on the second base body. At the first position, the first guide groove and the second guide groove surround each other to form the guide groove.

[0016] According to one embodiment of the present invention, a sliding groove is provided on the second seat, a handle is provided at one end of the sliding groove, a locking member is provided on the first seat, the sliding groove is adapted to slide relative to the locking member, and the locking member is used to lock the relative position of the second seat and the first seat.

[0017] According to one embodiment of the present invention, the mounting shaft includes:

[0018] A tapered base is mounted on the sliding seat, and the cross-sectional area of ​​the tapered base gradually decreases from the sliding seat away from the sliding seat;

[0019] The shaft is mounted on the tapered seat, and the spiral tube is mounted on the shaft.

[0020] According to one embodiment of the present invention, the output end of the second driving member is provided with a quick connector, and the end of the part to be wound is connected to the quick connector.

[0021] According to one embodiment of the present invention, the base is provided with a power supply component and a control component, and the power supply component and the control component are electrically connected to the first drive component and the second drive component.

[0022] The spiral winding device provided in this embodiment of the present invention achieves spiral tube winding through automation, greatly reducing the tediousness and time cost of manual operation and improving winding efficiency. The first and second drive components in the device work together to precisely control the winding speed of the spiral tube and the rotation speed of the workpiece to be wound, thereby ensuring the uniformity and tightness of the winding and improving the winding quality. The tapered mounting shaft design in the device allows for easy installation and removal of the spiral tube, and can adapt to workpieces of different diameters or shapes, enhancing the versatility and flexibility of the device. The entire device has a compact structure, reasonable design, and is simple and easy to operate, reducing the skill requirements for operators and improving work efficiency. The spiral winding device provided in this embodiment of the present invention can improve winding efficiency, ensure winding quality, enhance adaptability, and simplify operation. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in this utility model or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained from these drawings without creative effort.

[0024] Figure 1 This is a schematic top view of the spiral winding device provided by this utility model.

[0025] Figure 2 This is a schematic perspective view of the spiral winding device provided by this utility model.

[0026] Figure 3 This is a schematic perspective view of the sliding seat and guide seat provided by this utility model.

[0027] Figure 4 This is a schematic perspective view of the sliding seat and the first seat body provided by this utility model.

[0028] Figure label:

[0029] 100. Base; 102. First driving component; 104. Sliding seat; 106. Mounting shaft; 108. Second driving component; 110. Transmission component; 112. Fixed seat; 114. Limiting component; 116. Guide seat; 118. First seat body; 120. Second seat body; 122. First guide groove; 124. Second guide groove; 126. Sliding groove; 128. Handle; 130. Locking component; 132. Conical seat body; 134. Shaft body; 136. Quick connector; 138. Power supply component; 140. Control component. Detailed Implementation

[0030] The embodiments of this utility model will be described in further detail below with reference to the accompanying drawings and examples. The following examples are for illustrative purposes only and should not be construed as limiting the scope of this utility model.

[0031] like Figures 1 to 4 As shown, this embodiment of the present invention provides a spiral winding device, comprising:

[0032] Base 100;

[0033] The first driving member 102 is mounted on the base 100. The output end of the first driving member 102 is connected to the sliding seat 104. The sliding seat 104 is provided with a tapered mounting shaft 106, which is used to mount the spiral tube.

[0034] The second driving member 108 is mounted on the base 100. The output end of the second driving member 108 is connected to the part to be wound. The second driving member 108 is adapted to drive the part to be wound to rotate.

[0035] The first driving member 102 is adapted to drive the sliding seat 104 to move along the length direction of the part to be wound so that the spiral tube is wound around the part to be wound.

[0036] The spiral winding device provided in this embodiment of the present invention achieves spiral tube winding through automation, greatly reducing the tediousness and time cost of manual operation and improving winding efficiency. The first drive component 102 and the second drive component 108 in the device work together to precisely control the winding speed of the spiral tube and the rotation speed of the workpiece to be wound, thereby ensuring the uniformity and tightness of the winding and improving the winding quality. The tapered mounting shaft 106 in the device allows for easy installation and removal of the spiral tube, and can adapt to workpieces of different diameters or shapes, enhancing the versatility and flexibility of the device. The entire device has a compact structure, reasonable design, and is easy to operate, reducing the skill requirements for operators and improving work efficiency. The spiral winding device provided in this embodiment of the present invention can improve winding efficiency, ensure winding quality, enhance adaptability, and simplify operation.

[0037] Please continue reading Figures 1 to 4 The spiral winding device provided in this embodiment of the invention aims to achieve efficient and precise winding of the spiral tube on the workpiece to be wound.

[0038] The base 100 serves as the basic support structure for the entire device, ensuring that all components can be installed stably and securely.

[0039] The first driving component 102 is mounted on the base 100. Its main function is to provide power, which is transmitted to the sliding seat 104 through the output end, thereby driving the sliding seat 104 to move in a specific direction. The sliding seat 104 is provided with a tapered mounting shaft 106. This design facilitates the installation and fixation of the spiral tube, ensuring that the spiral tube remains stable during the winding process.

[0040] The sliding seat 104 serves as a moving platform, supporting the mounting shaft 106 and the spiral tube. The tapered design of the mounting shaft 106 not only facilitates the installation and removal of the spiral tube, but also helps to adjust the posture of the spiral tube during the winding process to accommodate workpieces of different diameters or shapes.

[0041] The second driving component 108 is also mounted on the base 100, and its output end is connected to the workpiece to be wound, responsible for driving the workpiece to be wound to rotate. By rotating the workpiece to be wound, the movement of the sliding seat 104 can be coordinated to achieve uniform and tight winding of the spiral tube on the workpiece to be wound.

[0042] During operation, the first driving component 102 is activated, causing the sliding seat 104 to move along the length of the part to be wound. At the same time, the second driving component 108 is activated, causing the part to be wound to rotate. In this way, the spiral tube gradually winds along the length of the part to be wound under the drive of the sliding seat 104, and achieves a tight fit under the rotation of the part to be wound.

[0043] According to one embodiment of the present invention, the output end of the first driving member 102 is connected to the transmission member 110, and the sliding seat 104 is connected to the transmission member 110 in a driving manner. The sliding seat 104 is adapted to slide along the axial direction of the transmission member 110.

[0044] In this embodiment of the invention, the output end of the first driving member 102 is tightly connected to the transmission member 110, which transmits the power generated by the first driving member 102 to the sliding seat 104. This connection method ensures effective power transmission and enables the sliding seat 104 to move along a predetermined trajectory and speed.

[0045] The sliding seat 104 is not directly connected to the output end of the first drive member 102, but rather establishes a transmission connection with the transmission member 110. This means that the sliding seat 104 receives and responds to the power input of the first drive member 102 through the transmission member 110. This design increases the flexibility and stability of the system. In this embodiment, the transmission member 110 can be a screw.

[0046] The sliding seat 104 is designed to slide along the axial direction of the transmission member 110. This means that the sliding seat 104 can move along a straight path (i.e., the axial direction of the transmission member 110), thereby driving the helical tube mounted thereon to wind along the length of the workpiece to be wound. This sliding method is simple and effective, ensuring the stability and controllability of the winding process.

[0047] By introducing the transmission component 110 as an intermediate medium, the sliding seat 104 can move more smoothly and controllably. This helps reduce potential deviations and vibrations during winding, thereby improving winding accuracy and quality. The design of the transmission component 110 allows the system to adapt to workpieces of different sizes and shapes. By adjusting the connection method and parameters between the transmission component 110 and the sliding seat 104, the movement trajectory and speed of the sliding seat 104 can be flexibly adjusted to meet different winding requirements. The use of the transmission component 110 as the power transmission medium makes the system structure more compact and simple. This not only reduces system complexity and cost but also facilitates operation and maintenance.

[0048] According to one embodiment of the present invention, a fixed seat 112 is provided on the base 100, and a transmission member 110 is rotatably connected to the fixed seat 112. Limiting members 114 are provided at both ends of the transmission member 110 along the length direction of the transmission member 110. When the sliding seat triggers the limiting member 114, the first driving member 102 reverses.

[0049] In this embodiment of the invention, a fixed seat 112 is provided on the base 100. The fixed seat 112 is used to install and fix the transmission component 110, ensuring that the transmission component 110 can rotate stably. This design allows the transmission component 110 to rotate on a fixed axis, thereby driving the sliding seat to move.

[0050] The transmission component 110 is rotatably connected to the fixed base 112 by some means (such as bearings, bushings, etc.). This rotatable connection allows the transmission component 110 to rotate freely when subjected to driving force and transmit power to the sliding base. At the same time, this design also ensures the stability and reliability of the transmission component 110 during rotation.

[0051] Limiting elements 114 are provided at both ends of the transmission member 110 along its length. The function of the limiting elements 114 is to limit the movement range of the sliding seat and prevent it from exceeding the predetermined stroke. When the sliding seat moves to one end of the transmission member 110 and triggers the limiting element 114, the limiting element 114 will send a signal to the control system, instructing the first drive member 102 to perform a reverse operation.

[0052] When the sliding block triggers the limit switch 114, the control system receives a corresponding signal and instructs the first drive unit 102 to reverse. This means that when the sliding block moves to one end of the transmission unit 110 and reaches its limit position, the first drive unit 102 changes its rotation direction, thereby driving the sliding block to move in the opposite direction. This reversal mechanism ensures that the sliding block can move back and forth within a predetermined stroke, realizing continuous winding or unwinding operations.

[0053] By setting the limiting component 114 and the reversing mechanism of the first driving component 102, the sliding seat can automatically stop and reverse when it reaches the limit position, thereby avoiding damage or malfunction caused by excessive movement. This improves the safety and reliability of the system and ensures the stable operation of the equipment. By introducing the limiting component 114 and the automatic reversing mechanism, precise control and automatic adjustment of the sliding seat's movement range are achieved. This reduces the difficulty and complexity of manual operation and improves the automation level and production efficiency of the system. Rotarily connecting the transmission component 110 to the fixed base 112 and setting the limiting components 114 at both ends makes the structure of the entire equipment more compact and reasonable. This design not only saves space but also improves the stability and durability of the equipment.

[0054] According to one embodiment of the present invention, a guide seat 116 is provided on the sliding seat 104, and the guide seat 116 is slidably connected to the workpiece to be wound.

[0055] In this embodiment of the utility model, a guide seat 116 is added to the sliding seat 104. The guide seat 116 is fixedly connected to the sliding seat 104 or integrally formed to form an integral structure.

[0056] The guide seat 116 is designed to slide with the workpiece to be wound. This sliding connection can be a direct physical contact or a sliding through a sliding medium (such as lubricating oil, sliding bearings, etc.). The sliding connection between the guide seat 116 and the workpiece to be wound ensures that the sliding seat 104 maintains a stable trajectory and speed during movement, thereby improving the accuracy and stability of the winding process.

[0057] During operation, the first drive member 102 drives the sliding seat 104 to move along the length of the workpiece to be wound via the transmission member 110. Simultaneously, the sliding connection between the guide seat 116 and the workpiece to be wound ensures smooth movement of the sliding seat 104 and allows for fine-tuning as needed to accommodate workpieces of different diameters or shapes. This design not only improves the accuracy and stability of the winding process but also makes the device suitable for a wider range of winding needs.

[0058] By adding a guide seat 116 and slidingly connecting it to the workpiece to be wound, the stability and trajectory accuracy of the sliding seat 104 during movement are ensured. This helps improve the precision and consistency of winding, allowing the spiral tube to be wound more tightly and evenly onto the workpiece. The design of the guide seat 116 provides better support and guidance for the sliding seat 104 during movement, thereby reducing winding quality problems caused by shaking or deviation. This enhances the overall stability of the system and improves the durability and reliability of the equipment. Because the sliding connection between the guide seat 116 and the workpiece to be wound has a certain degree of adaptability, the device can be applied to workpieces of different diameters or shapes. This makes the device more widely applicable and more flexible in practical applications.

[0059] According to one embodiment of the present invention, the guide seat 116 includes:

[0060] The first seat 118 is mounted on the sliding seat 104;

[0061] The second seat 120 is rotatably mounted on the first seat 118. The second seat 120 is adapted to switch between a first position and a second position relative to the first seat 118. In the first position, the second seat 120 and the first seat 118 are adapted to form a guide groove for receiving the part to be wound. In the second position, the part to be wound is adapted to disengage from the guide seat 116.

[0062] In this embodiment of the invention, the first seat 118 serves as the main support structure for the guide seat 116 and is securely mounted on the sliding seat 104. This connection method ensures that the guide seat 116 can slide along the axial direction of the transmission member 110 together with the sliding seat 104 and maintain a stable posture.

[0063] The second seat 120 is designed to be rotatably mounted on the first seat 118. This rotatable design allows the second seat 120 to rotate relative to the first seat 118 within a certain range, thereby installing or releasing the part to be wound.

[0064] The guide seat 116 is designed to switch between a first position and a second position. In the first position, the second seat 120 and the first seat 118 form a guide groove for receiving the workpiece to be wound. This guide groove guides and positions the workpiece, ensuring that the spiral tube can be accurately wound onto it. In the second position, the workpiece can be removed from the guide seat 116, facilitating replacement or removal of the wound workpiece.

[0065] During operation, the sliding seat 104 drives the guide seat 116 to move axially along the transmission member 110, while the second seat 120 can switch between a first position and a second position. When winding is required, the second seat 120 rotates to the first position, forming a guide groove together with the first seat 118 to accommodate and guide the workpiece to be wound. When winding is completed or when the workpiece to be wound needs to be replaced, the second seat 120 rotates to the second position, and the workpiece to be wound can then be removed from the guide seat 116.

[0066] The first seat 118 and the second seat 120 are structurally designed and firmly connected, ensuring the stability and reliability of the guide seat 116 during movement and rotation. This helps reduce winding quality problems caused by shaking or deviation, and improves winding accuracy and consistency. The design of the second seat 120, which switches between the first and second positions, simplifies and facilitates changing the workpiece to be wound. This reduces the operator's workload and improves work efficiency. The design of the guide seat 116 makes the entire equipment structure more compact and rational, saving space and improving the overall aesthetics of the equipment.

[0067] According to one embodiment of the present invention, a first guide groove 122 is provided on a first base 118, and a second guide groove 124 is provided on a second base 120. In a first position, the first guide groove 122 and the second guide groove 124 surround each other to form a guide groove.

[0068] In this embodiment of the invention, a first guide groove 122 is provided on the first base 118. The shape and size of the first guide groove 122 are designed to match the shape and size of the part to be wound. The function of the first guide groove 122 is to guide and support the part to be wound, ensuring that it can maintain a stable posture and trajectory during the winding process.

[0069] The second base 120 is also provided with a second guide groove 124, which corresponds to the first guide groove 122 and forms a complete guide groove with the first guide groove 122 in the first position. The shape and size of the second guide groove 124 are also designed to match the shape and size of the part to be wound to ensure that the part to be wound can move smoothly in it.

[0070] When the second seat 120 is in the first position, the first guide groove 122 and the second guide groove 124 are aligned and form a guide groove. This guide groove guides and positions the workpiece to be wound, ensuring that the spiral tube can be accurately wound onto the workpiece. The shape and size of the guide groove can be adjusted according to the shape and size of the workpiece to be wound to adapt to different winding requirements. It should be noted that the guide groove and the workpiece to be wound have a clearance fit to prevent the guide groove from causing wear on the workpiece.

[0071] During operation, the sliding seat 104 drives the guide seat 116 to move axially along the transmission member 110. Simultaneously, the second seat 120 can switch between a first position and a second position. When winding is required, the second seat 120 rotates to the first position, forming a guide groove together with the first seat 118 to accommodate and guide the workpiece to be wound. The guide groove design allows the workpiece to maintain a stable posture and trajectory during winding, thereby improving the accuracy and consistency of the winding process.

[0072] By designing the first guide groove 122 and the second guide groove 124, and forming a guide groove in the first position, a more stable and precise guide is provided for the workpiece to be wound. This helps reduce winding quality problems caused by shaking or deviation, and improves the accuracy and consistency of winding. The design of the first guide groove 122 and the second guide groove 124 makes the guide seat 116 more stable and reliable during movement and rotation. This helps reduce failure problems caused by structural loosening or deformation, and improves the durability and reliability of the equipment. Since the shape and size of the guide groove can be adjusted according to the shape and size of the workpiece to be wound, the device can adapt to workpieces of different shapes and sizes. This greatly improves the flexibility and adaptability of winding, enabling the device to be applied to a wider range of winding scenarios.

[0073] According to one embodiment of the present invention, a sliding groove 126 is provided on the second seat 120, and a handle 128 is provided at one end of the sliding groove 126. A locking member 130 is provided on the first seat 118. The sliding groove 126 is adapted to slide relative to the locking member 130. The locking member 130 is used to lock the relative position of the second seat 120 and the first seat 118.

[0074] In this embodiment of the present invention, a sliding groove 126 is provided on the second seat 120. The sliding groove 126 is not only used to cooperate with the first seat 118 to form a guide groove (as described above), but also provides a path for the second seat 120 to slide relative to the first seat 118.

[0075] A handle 128 is provided at one end of the slide 126. The handle 128 is designed so that the operator can easily grasp and move the second seat 120 to adjust its position relative to the first seat 118. The shape and size of the handle 128 are designed to be easy to hold and operate in order to improve efficiency.

[0076] A locking member 130 is provided on the first seat 118, which is used to lock the relative position of the second seat 120 and the first seat 118. When the second seat 120 is adjusted to the desired position, the locking member 130 can be tightened to fix the position of the second seat 120 and prevent it from moving or shifting during operation.

[0077] The locking element 130 can be designed in various forms, such as bolts, nuts, and clips, depending on actual needs and design requirements. In this embodiment, the specific form of the locking element 130 is not described in detail, but it should be able to meet the requirements of locking and fixing the second seat 120.

[0078] During operation, the operator can grasp the second seat 120 via handle 128 and move it along slide 126 to adjust its position relative to the first seat 118. Once the second seat 120 is adjusted to the desired position, it can be secured using locking member 130. When it is necessary to switch the position of the second seat 120 (e.g., from the first position to the second position), the locking member 130 can be released first, then the second seat 120 can be moved along slide 126 to the desired position, and the locking member 130 can be used again to secure it.

[0079] The design of the handle 128 and the slide 126 allows the operator to easily grasp and move the second seat 120, thereby quickly adjusting its position relative to the first seat 118. This greatly improves operational convenience and efficiency. The locking element 130 ensures that the second seat 120 is securely fixed after being adjusted to the desired position, preventing it from moving or shifting during operation. This enhances the stability and reliability of the device, ensuring the smooth progress of the winding process. Because the second seat 120 can move along the slide 126 and be locked in the desired position, the device can adapt to parts of different shapes and sizes to be wound. This greatly improves the flexibility and adaptability of the device, enabling it to be applied to a wider range of winding scenarios.

[0080] According to one embodiment of the present invention, the mounting shaft 106 includes:

[0081] The conical seat 132 is installed on the sliding seat 104, and the cross-sectional area of ​​the conical seat 132 gradually decreases from the sliding seat 104 away from the sliding seat 104.

[0082] Shaft 134 is mounted on tapered seat 132, and helical tube is mounted on shaft 134.

[0083] In this embodiment of the invention, the conical seat 132 is designed to be mounted on the sliding seat 104. Its shape is conical, and the cross-sectional area of ​​the conical seat 132 gradually decreases from the sliding seat 104 away from it. This design allows the conical seat 132 to be securely mounted on the sliding seat 104 and provides a gradually decreasing transition area, which helps to better support and fix the spiral tube.

[0084] The material and dimensions of the tapered base 132 can be selected and designed according to actual needs to ensure that it can meet the installation and fixing requirements of the spiral tube.

[0085] The shaft 134 is designed to be mounted on the tapered base 132, and its shape and size are designed to match the shape and size of the helical tube. The function of the shaft 134 is to provide a stable support and fixing platform for the helical tube, ensuring that it can maintain a stable posture and trajectory during winding.

[0086] The shaft 134 can be made of metal, plastic, or other suitable materials, depending on the specific needs and design requirements. The surface of the shaft 134 can be treated, such as polishing or spraying, to improve its smoothness and wear resistance.

[0087] The spiral tube is mounted on the shaft 134 and connected to the shaft 134 by a suitable fixing method (such as clips, bolts, etc.). This connection method ensures that the spiral tube can be firmly fixed on the shaft 134 during the winding process, and will not cause winding quality problems due to shaking or deviation.

[0088] During operation, the helical tube is mounted on the shaft 134 and connected to the shaft 134 by a suitable fixing method. The tapered seat 132 provides a gradually decreasing transition area for the helical tube, which helps to better support and fix the helical tube.

[0089] When the sliding seat 104 drives the guide seat 116 to move axially along the transmission member 110, the mounting shaft 106 (including the tapered seat 132 and the shaft 134) moves accordingly and guides the spiral tube to wind. Due to the stable support and fixing effect of the tapered seat 132 and the shaft 134, the spiral tube can be accurately wound on the workpiece to be wound.

[0090] By designing the tapered seat 132 and shaft 134, a more stable and reliable support and fixing platform is provided for the helical tube. This helps reduce winding quality problems caused by swaying or deviation, improving winding accuracy and consistency. The design of the tapered seat 132 allows the mounting shaft 106 to adapt to helical tubes of different shapes and sizes. This design improves the adaptability and flexibility of the mounting shaft 106, enabling the device to be applied to a wider range of winding scenarios. Mounting the helical tube onto the shaft 134 using a suitable fixing method simplifies the installation and removal process. This reduces the labor intensity of operators and improves work efficiency. Due to the stable support and fixing effect of the tapered seat 132 and shaft 134, and the accurate winding of the helical tube, the overall performance and durability of the device are improved. This helps extend the service life of the device and reduce maintenance costs.

[0091] According to one embodiment of the present invention, the output end of the second driving member 108 is provided with a quick connector 136, and the end of the part to be wound is connected to the quick connector 136.

[0092] In this embodiment of the invention, the second driving member 108, as an important component of the driving system, has its output end specially designed to accommodate the quick connector 136. This design enables the second driving member 108 to efficiently and accurately transmit power, thereby driving the workpiece to be wound to perform the winding operation.

[0093] The quick connector 136 is a connector capable of quick connection and disconnection, designed to simplify the connection process and improve connection efficiency. In this embodiment, the quick connector 136 is installed at the output end of the second drive member 108 for connection to the end of the part to be wound.

[0094] The quick connector 136 may include a locking mechanism and a sealing structure to ensure stability and reliability after connection. The locking mechanism ensures a secure connection between the quick connector 136 and the workpiece to be wrapped, preventing detachment or loosening during wrapping. The sealing structure prevents leakage or contamination during wrapping.

[0095] The end of the workpiece to be wound is designed to connect with the quick connector 136. This design allows the workpiece to be wound to be quickly and easily installed onto the output end of the second drive unit 108, thereby initiating the winding operation.

[0096] During the connection process, the operator only needs to insert the end of the part to be wrapped into the quick connector 136 and secure it using the locking mechanism. This connection method not only simplifies the operation steps but also improves connection efficiency.

[0097] During operation, the second drive unit 108 starts and generates power. The power is transmitted to the quick connector 136 through the output end, thereby driving the workpiece to be wound to perform the winding operation. Due to the design of the quick connector 136, the workpiece to be wound can be quickly and stably connected to the second drive unit 108, thereby ensuring the smooth progress of the winding operation.

[0098] By designing the quick-connect coupling 136, a rapid connection between the workpiece to be wound and the second drive unit 108 is achieved. This connection method not only simplifies the operation steps but also shortens the connection time, thereby improving connection efficiency. The quick-connect coupling 136 is designed with locking mechanisms and sealing structures to ensure stability and reliability after connection. This helps prevent malfunctions such as detachment or loosening during the winding process, thus ensuring smooth winding operations. Because the quick-connect coupling 136 can achieve a stable connection between the workpiece to be wound and the second drive unit 108, it can ensure accuracy and consistency during the winding process. This helps reduce winding quality problems caused by connection issues and improves the overall quality of the product.

[0099] According to one embodiment of the present invention, a power supply component 138 and a control component 140 are provided on the base 100, and the power supply component 138 and the control component 140 are electrically connected to the first drive component 102 and the second drive component 108.

[0100] In this embodiment of the utility model, a power supply component 138 and a control component 140 are specially provided on the base 100. These two components are the key to realizing the normal operation of the drive component.

[0101] The power supply unit 138 is designed to provide a stable and reliable power output to meet the operational requirements of the first drive unit 102 and the second drive unit 108. The power supply unit 138 may include a battery, a power adapter, etc., with the specific choice depending on actual needs and design requirements. For example, in applications requiring mobility or portability, a battery can be selected as the power supply unit 138; while in applications requiring fixed installation or continuous power supply, a power adapter can be selected.

[0102] The control unit 140 is designed to receive external commands or signals and control the operating states of the first drive unit 102 and the second drive unit 108 according to these commands or signals. The control unit 140 may include a microprocessor, a controller, or other intelligent control unit, as well as related circuits and interfaces. These components work together to achieve precise control of the drive units.

[0103] The power supply unit 138, control unit 140, first drive unit 102, and second drive unit 108 are electrically connected via conductive media such as wires or cables. This electrical connection ensures that the power supply unit 138 can provide the necessary power to the drive units, while the control unit 140 can send control commands to the drive units. Safety and reliability factors were also considered in the design of the electrical connection. For example, appropriate wire specifications and connection methods were used to ensure stable current transmission and prevent faults such as short circuits.

[0104] During operation, the power supply unit 138 provides the necessary power to the first drive unit 102 and the second drive unit 108. Simultaneously, the control unit 140 receives external commands or signals and controls the operating state of the drive units according to these commands or signals.

[0105] For example, when the winding operation needs to be initiated, the control unit 140 sends a start command to the first drive unit 102 and the second drive unit 108, and the drive unit then starts working and drives the workpiece to be wound. When the winding is completed, the control unit 140 sends a stop command to the drive unit, and the drive unit then stops working.

[0106] By designing the power supply component 138 and the control component 140 and electrically connecting them to the drive component, the device is ensured to operate stably and reliably. This helps reduce downtime and failures caused by power or control issues. The design of the control component 140 enables the device to receive external commands or signals and adjust the operating state of the drive component accordingly. This enhances the device's flexibility and adaptability, allowing it to cope with different work requirements and scenarios. Since both the power supply component 138 and the control component 140 are integrated into the base 100 and electrically connected to the drive component, operation and maintenance become simpler and more convenient. Operators can control and monitor the drive component simply through the control component 140 without complex connection and debugging work. The design of the power supply component 138 enables the device to utilize energy efficiently and reduce energy waste. For example, when not in operation, the drive component can be placed in standby or off state through the control component 140 to reduce energy consumption.

[0107] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this utility model, and not to limit it. Although this utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this utility model.

Claims

1. A spiral winding device, characterized in that, include: Base (100); A first driving member (102) is mounted on the base (100). The output end of the first driving member (102) is connected to a sliding seat (104). A tapered mounting shaft (106) is provided on the sliding seat (104). The mounting shaft (106) is used to mount a spiral tube. The second driving member (108) is installed on the base (100). The output end of the second driving member (108) is connected to the part to be wound. The second driving member (108) is adapted to drive the part to be wound to rotate. The first driving member (102) is adapted to drive the sliding seat (104) to move along the length direction of the part to be wound so that the spiral tube is wound around the part to be wound.

2. The spiral winding device according to claim 1, characterized in that, The output end of the first driving member (102) is connected to a transmission member (110), and the sliding seat (104) is connected to the transmission member (110). The sliding seat (104) is adapted to slide along the axial direction of the transmission member (110).

3. The spiral winding device according to claim 2, characterized in that, A fixed seat (112) is provided on the base (100), and the transmission member (110) is rotatably connected to the fixed seat (112). Limiting members (114) are provided at both ends of the transmission member (110) along the length direction of the transmission member (110). When the sliding seat triggers the limiting member (114), the first driving member (102) reverses.

4. The spiral winding device according to claim 1, characterized in that, The sliding seat (104) is provided with a guide seat (116), and the guide seat (116) is slidably connected to the workpiece to be wound.

5. The spiral winding device according to claim 4, characterized in that, The guide seat (116) includes: A first seat (118) is mounted on the sliding seat (104); A second seat (120) is rotatably mounted on the first seat (118). The second seat (120) is adapted to switch between a first position and a second position relative to the first seat (118). In the first position, the second seat (120) and the first seat (118) are adapted to form a guide groove for receiving the workpiece to be wound. In the second position, the workpiece to be wound is adapted to disengage from the guide seat (116).

6. The spiral winding device according to claim 5, characterized in that, The first seat (118) is provided with a first guide groove (122), and the second seat (120) is provided with a second guide groove (124). At the first position, the first guide groove (122) and the second guide groove (124) surround each other to form the guide groove.

7. The spiral winding device according to claim 5, characterized in that, The second seat (120) is provided with a slide groove (126), and a handle (128) is provided at one end of the slide groove (126). The first seat (118) is provided with a locking member (130). The slide groove (126) is adapted to slide relative to the locking member (130). The locking member (130) is used to lock the relative position of the second seat (120) and the first seat (118).

8. The spiral winding device according to any one of claims 1 to 7, characterized in that, The mounting shaft (106) includes: A conical seat (132) is installed on the sliding seat (104), and the cross-sectional area of ​​the conical seat (132) gradually decreases from the sliding seat (104) away from the sliding seat (104); A shaft (134) is mounted on the conical seat (132), and the spiral tube is mounted on the shaft (134).

9. The spiral winding device according to any one of claims 1 to 7, characterized in that, The output end of the second driving member (108) is provided with a quick connector (136), and the end of the part to be wound is connected to the quick connector (136).

10. The spiral winding device according to any one of claims 1 to 7, characterized in that, The base (100) is provided with a power supply component (138) and a control component (140), and the power supply component (138) and the control component (140) are electrically connected to the first drive component (102) and the second drive component (108).

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