Bionic hook knotless wire binding device

Abstract

According to the bionic hook knotless wire binding device, the structural layout is improved, the first support and the guide rail assembly are arranged on the machine base, rotation of the wire winding device is controlled through the rotating device, and displacement of the wire winding device is controlled through cooperation of the sliding device and the first support. The installation positions of the driving device and the winding device can be limited at the machine base, so that the structural layout of the bionic hook knotless wire binding device is simplified, the overall size of the bionic hook knotless wire binding device is reduced, and the production cost of the bionic hook knotless wire binding device is reduced; and secondly, due to the fact that the size of the fishhook is small, the length of a binding line on a hook handle of the fishhook is limited, the winding device is connected to the guide rail assembly in a sliding mode through the first support, the moving path of the winding device is limited on the guide rail assembly, the moving path of the winding device can be shortened, and the efficiency of binding the line on the fishhook is improved.

Description

Technical Field

[0001] The utility model relates to the technical field of fishhook production, in particular to a bionic hook knotless wire binding device. Background Art

[0002] In modern leisure fishing activities, binding of fishing hooks and fishing lines is a basic and important step, which is directly related to the efficiency and success rate of fishing. In order to improve production efficiency and reduce manual labor, hook binding machines came into being, which can automatically complete the binding process of fish hooks and fishing lines.

[0003] The hook tying machine is a mechanical equipment specially designed for tying fishing hooks to fishing lines. Traditional manual hook tying is not only inefficient and difficult to ensure quality, but also labor-intensive. Long-term repetitive work can easily lead to physical fatigue and occupational injuries of workers. Therefore, the emergence of the hook tying machine has greatly improved the process flow of fishing hook production, improved work efficiency and the quality of hook-line combination, while reducing production costs.

[0004] Most existing hook tying machines use complex hanging bracket structures, which are used to fix fishing lines and serve as moving guides for line tying components. Although this design can achieve its function, it has the following technical problems: the hanging bracket structure of the hook tying machine usually needs to occupy a large space to accommodate complex moving parts and ensure the stability of mechanical operation, which results in a large size of the entire machine, which is not convenient for deployment and use in environments with limited space. Moreover, the larger hook tying machine will generate more noise when it is in operation. This problem not only affects the comfort and work efficiency of the staff, but long-term exposure to high-noise environments may also cause damage to the hearing of the staff. In addition, noise is also a form of environmental pollution and will have an adverse impact on the surrounding environment.

[0005] Due to the large size of the hook tying machine, a large space needs to be allocated separately for the hook tying machine, which is a disadvantage for small production units or individual users with limited resources.

[0006] Moreover, the complex hanging bracket structure not only makes the design and manufacturing process of the hook tying machine more complicated, but also the cost of materials and manufacturing is relatively high. In particular, the use of high-quality materials to ensure the stability and durability of the machine further increases the production cost of the hook tying machine.

[0007] The utility model is proposed in view of the deficiencies in the prior art. Utility Model Content

[0008] The present invention aims to solve the technical problems that the existing hook tying machines mentioned above have large overall size, high operating noise, large occupied space and high production cost.

[0009] The technical solution adopted by the utility model to solve its technical problems is:

[0010] A bionic hook knotless wire binding device comprises a machine base, a driving device, a clamping hook device and a winding device, wherein the clamping hook device and the winding device are arranged opposite to each other, the clamping hook device is provided with a fishhook clamping end for fixing the fishhook, and the winding device is provided with a wire outlet end, the driving device comprises a first bracket, a sliding device and a rotating device, the winding device can be circumferentially rotatably connected to the first bracket, the rotating device is arranged on the first bracket and connected to the winding device, the rotating device can drive the winding device to rotate circumferentially to drive the wire outlet end to rotate circumferentially; a guide rail assembly is arranged on the machine base, the first bracket is slidably connected to the guide rail assembly, the sliding device is arranged on the machine base and connected to the first bracket, the sliding device can drive the first bracket to reciprocate along the guide rail assembly in the direction of approaching or moving away from the clamping hook device to drive the wire outlet end to reciprocate.

[0011] As described above, a bionic hook knotless wire binding device, the sliding device includes a first driving motor fixed on a machine base, a first transmission assembly connected between the first driving motor and the first bracket, the first transmission assembly includes a driving wheel, a first transmission belt and a driven wheel, the driving wheel is arranged on the output shaft of the first driving motor, the driven wheel is spaced apart from the driving wheel, the two ends of the first transmission belt are respectively sleeved on the outside of the driven wheel and the driving wheel, and an assembly portion connected to a part of the first transmission belt is provided on one side of the first bracket.

[0012] In the bionic hook knotless wire binding device as described above, the assembly part includes an assembly block and a connecting component, and the connecting component can make the assembly block detachably connected to the first bracket, and part of the first transmission belt is assembled between the assembly block and the first bracket.

[0013] In the bionic hook knotless wire binding device as described above, the connecting assembly includes a connecting member, the assembly block is provided with a first assembly hole, the first bracket is provided with a second assembly hole corresponding to the first assembly hole, and the connecting member passes through the first assembly hole and is connected to the second assembly hole.

[0014] In the bionic hook knotless wire binding device as described above, a plurality of anti-skid protrusions are arranged on the side of the assembly block facing the first bracket, and each of the anti-skid protrusions abuts against the side wall of part of the first transmission belt.

[0015] As described above, a bionic hook knotless wire binding device, the rotating device includes a second drive motor fixedly mounted on the first bracket and a second transmission assembly connected to the second drive motor, the winding device is transmission-connected to the second transmission assembly, the second transmission assembly includes a first transmission member and a second transmission member, the first bracket is provided with a first through hole, the output shaft of the second drive motor passes through the first through hole and is connected to the first transmission member, the second transmission member is connected between the first transmission member and the winding device, the second drive motor can drive the first transmission member and the second transmission member to generate linkage, so that the winding device can rotate circumferentially relative to the first bracket.

[0016] As described above, a bionic hook knotless wire binding device, the winding device includes a winding shell rotatably connected to a first bracket and a transmission structure arranged on one side of the winding shell, the transmission structure includes a wheel groove portion arranged on the outer wall of the winding shell, the second transmission member is a second transmission belt, one end of the second transmission belt is sleeved on the outside of the wheel groove portion, and the other end is sleeved on the outside of the first transmission member.

[0017] A bionic hook knotless wire binding device as described above also includes a winding bracket vertically arranged on the machine base and located on one side of the guide rail assembly, and a plurality of winding shafts are arranged on the winding bracket. A second through hole is provided in the first bracket, and each of the winding shafts includes at least one first winding shaft, and the first winding shaft is arranged opposite to the clamping hook device through the second through hole.

[0018] As described above, a bionic hook knotless wire binding device, the hook clamping device comprises a second bracket arranged in the machine base and a fishhook clamp arranged on the second bracket, and the fishhook clamping end is arranged on one end of the fishhook clamp close to the winding device.

[0019] In the bionic hook knotless wire binding device as described above, the wire winding device is made of metal material.

[0020] The beneficial effects of the utility model are:

[0021] The utility model improves the structural layout of the bionic hook knotless wire binding device, by arranging a first bracket and a guide rail assembly on the machine base, controlling the rotation of the winding device through a rotating device, and controlling the displacement of the winding device through the cooperation of a sliding device and the first bracket. With such a design, the installation positions of the driving device and the winding device can be limited to the machine base, thereby simplifying the structural layout of the bionic hook knotless wire binding device, reducing the overall volume of the bionic hook knotless wire binding device, and reducing the production cost of the bionic hook knotless wire binding device; secondly, since the volume of the fish hook is small, the length of the wire bound on the fish hook handle is limited, and the winding device is slidably connected to the guide rail assembly through the first bracket, so that the moving path of the winding device is limited to the guide rail assembly, which can shorten the moving path of the winding device to improve the efficiency of the fish hook wire binding.

[0022] The utility model will be further described below in conjunction with the accompanying drawings and specific implementation methods. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] Figure 1 This is one of the structural schematic diagrams of the utility model;

[0024] Figure 2 This is the second structural diagram of the utility model;

[0025] Figure 3 This is the third structural diagram of the utility model;

[0026] Figure 4 This is the fourth structural diagram of the utility model (another embodiment of the sliding device);

[0027] Figure 5 This is one of the exploded schematic diagrams of the utility model;

[0028] Figure 6 This is the second exploded schematic diagram of the utility model;

[0029] Figure 7 It is a structural schematic diagram of the winding device of the utility model. DETAILED DESCRIPTION

[0030] The implementation modes of the present utility model are described in detail below in conjunction with the accompanying drawings.

[0031] like Figures 1 to 7As shown, a bionic hook knotless wire binding device of this embodiment comprises a machine base 1, a driving device 2, a hook clamping device 3 and a winding device 4, wherein the hook clamping device 3 is arranged opposite to the winding device 4, the hook clamping device 3 is provided with a fishhook clamping end 31 for fixing the fishhook, the winding device 4 is provided with a wire outlet end 41, the driving device 2 comprises a first bracket 21, a sliding device 22 and a rotating device 23, the winding device 4 can be circumferentially rotatably matched and connected to the first bracket 21, and the rotating device 23 is arranged on the first bracket 21 The rotating device 23 is capable of driving the winding device 4 to rotate circumferentially, so as to drive the outlet terminal 41 to rotate circumferentially; a guide rail assembly 9 is provided on the machine base 1, and the first bracket 21 is slidably connected to the guide rail assembly 9. The sliding device 22 is provided on the machine base 1 and is connected to the first bracket 21. The sliding device 22 can drive the first bracket 21 to reciprocate along the guide rail assembly 9 in the direction of approaching or moving away from the clamping hook device 3, so as to drive the outlet terminal 41 to reciprocate.

[0032] Specifically, the device uses an additional tie wire to bind the fishing line to the fishhook, and fixes the fishhook to be tied at the fishhook clamping end 31 through the hook clamping device 3. The winding device 4 is provided with a tie wire to be tied, and the tie wire is discharged from the outlet end 41. The first bracket 21 can be driven by the sliding device 22 to drive the outlet end 41 of the winding device 4 to move in the direction close to the fishhook clamping end 31, so that the outlet end 41 is close to the fishhook, and then the winding device 4 is driven by the rotating device 23 to drive the outlet end 41 to rotate in the same direction relative to the fishhook, and at the same time, the first bracket 21 is driven by the sliding device 22. At this time, the first bracket 21 moves back and forth several times along the guide rail assembly 9 in the direction close to or away from the fishhook clamping end 31, so as to drive the outlet end 41 to move back and forth on the fishhook several times, so as to use the tie wire to wrap multiple circles around the fishhook and the fishing line to achieve binding of the fishhook and the fishing line.

[0033] The utility model improves the structural layout of the bionic hook knotless wire binding device, by arranging a first bracket 21 and a guide rail assembly 9 on the machine base 1, controlling the rotation of the winding device 4 through the rotating device 23, and controlling the displacement of the winding device 4 through the cooperation of the sliding device 22 and the first bracket 21. With such a design, the installation positions of the driving device 2 and the winding device 4 can be limited to the machine base 1, thereby simplifying the structural layout of the bionic hook knotless wire binding device, reducing the overall volume of the bionic hook knotless wire binding device, and reducing the production cost of the bionic hook knotless wire binding device; secondly, since the volume of the fish hook is small, the length of the wire binding on the fish hook handle is limited. The winding device 4 is slidably connected to the guide rail assembly 9 through the first bracket 21, so that the moving path of the winding device 4 is limited to the guide rail assembly 9, which can shorten the moving path of the winding device 4 to improve the efficiency of the fish hook wire binding.

[0034] The device realizes the automatic binding of fish hooks and fishing lines through sophisticated design, while reducing the volume and noise of traditional hook binding machines. Through the coordinated work of the sliding device and the rotating device, the device can complete the task of binding lines in a smaller space, reducing manufacturing costs and improving operational flexibility and efficiency. In addition, the compact design of the device also helps to reduce noise during operation and provide a more comfortable working environment for the operator.

[0035] like Figures 1 to 7 As shown, the sliding device 22 of this embodiment includes a first driving motor 223 fixed on the machine base 1, and a first transmission assembly 224 connected between the first driving motor 223 and the first bracket 21, the first transmission assembly 224 includes a driving wheel 2241, a first transmission belt 2242 and a driven wheel 2243, the driving wheel 2241 is arranged on the output shaft of the first driving motor 223, the driven wheel 2243 and the driving wheel 2241 are arranged at intervals, the two ends of the first transmission belt 2242 are respectively sleeved on the outside of the driven wheel 2243 and the driving wheel 2241, and an assembly portion connected to part of the first transmission belt 2242 is provided on one side of the first bracket 21.

[0036] Specifically, when the first drive motor 223 is started, its output shaft drives the driving wheel to rotate. Since the driving wheel is connected to the first transmission belt 2242, the rotation of the driving wheel causes the first transmission belt to rotate on the driven wheel and the driving wheel. The first bracket 21 is connected to the first transmission belt through the assembly part. Therefore, when the transmission belt rotates, the first bracket will slide linearly along the guide rail assembly under the drive of the transmission belt, and the first drive motor 223 can change the rotation direction of the driving wheel to realize the circular motion of the first transmission belt, so that the first bracket can realize reciprocating movement on the guide rail assembly, thereby realizing accurate position control of the winding device 4 relative to the clamping hook device 3.

[0037] This design allows the movement of the winding device 4 to be precisely controlled by changing the speed and direction of the first drive motor 223, thereby achieving an efficient and precise hook binding process and ensuring the smooth progress of the winding process.

[0038] Specifically, by adopting this transmission belt structure, the transmission belt can smoothly transmit power, reduce vibration and noise during operation, further reduce the noise generated by the operation of the wire binding device, and reduce the impact of the operation of the wire binding device on personnel and the environment.

[0039] Furthermore, compared with gear or chain transmission, the transmission belt system has a simpler structure and fewer parts, which helps to reduce the weight of the overall equipment and reduce manufacturing costs. In addition, the transmission belt is often easy to install and replace, does not require a complex tensioning mechanism, and has relatively low precision requirements on the axis spacing, reducing assembly difficulty and maintenance costs.

[0040] Furthermore, by selecting driving wheels and driven wheels of different diameters, or using a variable speed drive belt system, the output speed and torque can be adjusted within a certain range, providing flexible control options for the wire binding device.

[0041] Specifically, the spacing between the driving wheel 2241 and the driven wheel 2243 of this embodiment is greater than the length of the guide rail assembly 9. Such a design can prevent the sliding device 22 from hindering the movement of the first bracket, ensuring that it can work normally on the guide rail assembly.

[0042] Preferably, the first transmission assembly 224 of the present embodiment also includes at least one auxiliary wheel 2244, and the auxiliary wheel 2244 is located between the driving wheel 2241 and the driven wheel 2243, and the first transmission belt 2242 is sleeved on the outside of the auxiliary wheel 2244. The addition of the auxiliary wheel can help maintain the correct path of the transmission belt and prevent it from deviating or jumping during operation, thereby improving the stability and reliability of the entire transmission system. In addition, by adding the guidance of the auxiliary wheel, the transmission belt can be more evenly distributed on the driving wheel and the driven wheel, reducing local wear and extending the service life of the transmission belt.

[0043] Furthermore, the provision of auxiliary wheels can optimize the spatial layout inside the machine, especially when the distance between the driving wheel and the driven wheel is large, the auxiliary wheels can help to use the space more efficiently while ensuring that the path of the transmission belt is the shortest and most direct.

[0044] Preferably, each of the auxiliary wheels 2244 is arranged in the length direction of the guide rail assembly 9, away from the end of the guide rail assembly 9, so that the existence of the auxiliary wheel 2244 will not affect the movement of the first bracket 21. The auxiliary wheel is designed to be away from the end of the guide rail assembly to ensure that it will not interfere with the movement of the first bracket 21 on the guide rail assembly. This design ensures that the movement of the first bracket is not subject to additional resistance or interference, thereby maintaining efficient operation of the machine.

[0045] Preferably, in some other embodiments, the auxiliary wheel 2244 can also be arranged on the outside of the first transmission belt 2242 and be detachably connected to the machine base. With such a design, the damaged driving wheel 2241 and / or driven wheel 2243 can be quickly replaced, which means that production delays or additional maintenance costs caused by damaged parts can be reduced. In the long run, this can help companies save a lot of maintenance and operating costs.

[0046] like Figures 1 to 7 As shown, the assembly portion of this embodiment includes an assembly block 214 and a connecting component, and the connecting component can make the assembly block 214 detachably connected to the first bracket 21. Specifically, by assembling part of the first transmission belt 2242 between the assembly block 214 and the first bracket 21, the assembly between the first transmission belt 2242 and the first bracket 21 can be achieved, which has the advantages of simple structure and easy operation.

[0047] Furthermore, since the assembly block 214 can be removed from the first bracket 21, if the first transmission belt 2242 or the assembly block 214 itself needs to be repaired or replaced, it can be easily removed from the bracket for corresponding operations, which simplifies the maintenance and replacement process.

[0048] like Figures 1 to 7 As shown, the connection assembly of this embodiment includes a connecting member, the assembly block 214 is provided with a first assembly hole 216, the first bracket 21 is provided with a second assembly hole 218 corresponding to the first assembly hole 216, and the connecting member passes through the first assembly hole 216 and is connected to the second assembly hole 218.

[0049] Specifically, a connecting member is used to pass through the first assembly hole 216 on the assembly block 214 and the second assembly hole 218 on the first bracket 21. The personnel only needs to assemble part of the first transmission belt 2242 between the assembly block 214 and the first bracket 21, and then pass the connecting member through the first assembly hole 216 and connect it to the second assembly hole 218 to achieve the assembly between the first transmission belt 2242 and the first bracket 21, providing an intuitive and easy-to-operate connection method. This mechanism not only simplifies the assembly process, but also makes disassembly more convenient. Compared with the use of complex connection machinery or bonding methods, the method of using a connecting member to pass through the assembly hole for connection is not only simple to operate, but also relatively low in cost, which can help reduce overall production and maintenance costs.

[0050] Preferably, the connection member and the second assembly hole 218 may be connected by means of threads, snap-fitting or the like, and a suitable method may be selected according to actual design.

[0051] Specifically, the connection is achieved through a connecting member. This physical connection method ensures the stability and strength between the assembly block 214 and the first bracket 21 .

[0052] Furthermore, since the design of the connection components and the assembly holes can be standardized, this connection method has good compatibility and versatility. Different assembly blocks 214 can be connected using the same or similar connection components as long as they are designed with corresponding assembly holes.

[0053] Furthermore, by using connecting components, it is convenient to adjust the tightness of the connection between the assembly block 214 and the first bracket 21. By adjusting the tightness of the connecting components, the stability of the connection between the assembly block 214, the first transmission belt 2242, and the first bracket 21 can be adjusted to adapt to different working conditions and requirements.

[0054] Preferably, a third assembly hole (not shown in the figure) corresponding to the first assembly hole 216 is provided on the portion of the first transmission belt 2242 located between the assembly block 214 and the first bracket 21, and the connecting member passes through the first assembly hole 216 and the third assembly hole (not shown in the figure) in sequence, and then is connected to the second assembly hole 218. By directly involving the transmission belt in the connection process between the assembly block 214 and the first bracket 21, the stability of the entire assembly part can be effectively enhanced.

[0055] Specifically, this design allows the connecting member to pass directly through the transmission belt, which not only fixes the assembly block and the bracket, but also fixes the transmission belt, reducing the complexity of the assembly part. The introduction of the third assembly hole ensures that the position of the transmission belt can be accurately aligned with the assembly block and the bracket during the assembly process. The position of part of the transmission belt and the assembly block is positioned through the connecting member to avoid the transmission belt sliding between the assembly block and the first bracket. This design is very important for ensuring the smooth operation of the transmission system and reducing wear.

[0056] Specifically, in this embodiment, part of the first transmission belt is clamped between the assembly block and the first bracket. In other embodiments, grooves may be opened on the assembly block and / or the first bracket, and part of the first transmission belt is inserted into the grooves to achieve the assembly effect. The appropriate design can be selected according to actual needs.

[0057] like Figures 1 to 7 As shown, a plurality of anti-skid protrusions 217 are provided on the side of the assembly block 214 facing the first bracket 21 of this embodiment, and each of the anti-skid protrusions 217 abuts against a side wall of part of the first transmission belt 2242 .

[0058] Specifically, the direct contact between the anti-skid protrusion 217 and the side wall of the first transmission belt 2242 increases the anti-skid performance, thereby reducing or preventing the transmission belt from sliding on the assembly block and / or the first bracket during operation. By reducing sliding, the anti-skid protrusion 217 can ensure that the kinetic energy of the transmission belt is more effectively converted into mechanical motion, thereby improving transmission efficiency.

[0059] like Figures 1 to 7As shown, the rotating device 23 of this embodiment includes a second drive motor 231 fixedly mounted on the first bracket 21 and a second transmission assembly connected to the second drive motor 231. The winding device 4 is transmission-connected to the second transmission assembly. The second transmission assembly includes a first transmission member 232 and a second transmission member 233. A first through hole 211 is provided on the first bracket 21. The output shaft of the second drive motor 231 passes through the first through hole 211 and is connected to the first transmission member 232. The second transmission member 233 is connected between the first transmission member 232 and the winding device 4. The second drive motor 231 can drive the first transmission member 232 and the second transmission member 233 to generate linkage, so that the winding device 4 can rotate circumferentially relative to the first bracket 21.

[0060] Preferably, the winding device 4 of this embodiment includes a winding shell 42 rotatably connected to the first bracket 21 and a transmission structure 43 arranged on one side of the winding shell 42, the transmission structure 43 includes a wheel groove portion 431 arranged on the outer wall of the winding shell 42, the second transmission member 233 is a second transmission belt, one end of the second transmission belt is sleeved on the outside of the wheel groove portion 431, and the other end is sleeved on the outside of the first transmission member 232.

[0061] In this embodiment, the output shaft of the second drive motor 231 passes through the first through hole 211 and is connected to the first transmission member 232. The first transmission member 232, the second transmission member 233 and the winding device 4 are arranged on the same side of the first bracket 21, and the second drive motor 231 is arranged on the other side of the first bracket 21 to facilitate the transmission connection between the first transmission member 232, the second transmission member 233 and the winding device 4, so that the internal layout of the bionic hook knotless binding device is simple and beautiful.

[0062] Preferably, the second transmission assembly adopts belt drive, the first transmission member 232 can be a first pulley, the transmission structure 43 arranged on the winding shell 42 is a second pulley, and the transmission structure 43 includes a wheel groove portion 431, and the second transmission member is a second transmission belt sleeved on the outside of the first transmission member 232 and the wheel groove portion 431. In order to improve the transmission efficiency, the outer diameter of the wheel groove portion 431 is larger than the outer diameter of the first transmission member 232.

[0063] When the second drive motor 231 is started, the first transmission member 232 is driven to rotate through the output shaft of the second drive motor 231, and the transmission structure 43 is driven to rotate through the second transmission belt, so that the winding shell 42 is rotated relative to the first bracket 21. Since the winding shell 42 serves as the main body of the winding device 4, the wire outlet end 41 is also provided on the winding shell 42. Therefore, the wire outlet end 41 can rotate synchronously with the winding shell 42, so as to realize the function of the winding device 4 to tie the fish hook and the fishing line with the wire.

[0064] The rotating device 23 has a simple structure and is easy to produce, implement, promote, apply and maintain. Moreover, since the transmission structure 43 is directly arranged on the winding shell 42, the use and assembly of additional transmission parts are saved, and the internal structure of the bionic hook knotless wire binding device can be further simplified, making the internal structure layout of the bionic hook knotless wire binding device more simplified and beautiful, and can also improve the production and assembly efficiency of the bionic hook knotless wire binding device.

[0065] It should be noted that the first driving motor 223 and the second driving motor 231 can be commonly used small motors.

[0066] Preferably, the transmission structure 43 of this embodiment also includes limiting portions 432 located on both sides of the wheel groove portion 431, each of the limiting portions 432 extending outward along the circumference of the winding shell 42, and the two limiting portions 432 are used to limit the second transmission belt to maintain a state of being sleeved on the wheel groove portion 431. Preferably, the outer wall of the first transmission member 232 is also provided with a wheel groove portion 431 and limiting portions 432 similar to the transmission structure 43. With such a design, the second transmission belt can be stably assembled between the first transmission member 232 and the transmission structure 43.

[0067] In some other embodiments, the first bracket 21 is provided with a first matching portion 210 extending toward one side, and the winding housing 42 is provided with a second matching portion 421 adapted to the first matching portion 210, and the winding housing 42 is rotatably connected to the first bracket 21 by the corresponding matching engagement between the first matching portion 210 and the second matching portion 421;

[0068] Preferably, a bearing 44 may be further provided between the first matching portion 210 and the second matching portion 421 to optimize the rotational connection between the winding housing 42 and the first bracket 21 .

[0069] Preferably, the winding device 4 includes a wire storage device 45 and a wire guide 46 arranged on one side of the winding shell 42, a wire lead channel 47 is provided between the wire storage device 45 and the wire guide 46, the wire lead channel 47 is opposite to the wire outlet direction on the wire storage device 45, the wire outlet end 41 is provided at the end of the wire guide 46, and the wire outlet end 41 is connected to the wire lead channel 47, the wire storage device 45 can be set as a wire wheel that can rotate circumferentially, and the wire wheel is used to store the binding wire to be bundled.

[0070] Specifically, the wire outlet direction of the wire tie on the reel is opposite to the wire entrance of the wire guide channel 47, and the wire tie head can enter the wire guide channel 47 from the wire storage device 45, and finally be output from the wire outlet end 41. When the winding shell 42 is rotated by the rotating device 23 and drives the wire outlet end 41 to rotate relative to the fishhook, the wire tie can be tied around the outside of the fishhook and the fishing line, and the fishing line is bound to the fishhook.

[0071] Preferably, the wire storage device 45 and the wire guide 46 are adjacently arranged on the winding shell 42. In order to ensure the rotational stability and balance of the winding shell 42 during the winding process, a balance regulator 48 is provided on the side of the winding shell 42 opposite to the wire guide 46. The balance regulator 48 can be a counterweight lead block.

[0072] like Figures 1 to 7 As shown, a bionic hook knotless wire binding device of this embodiment also includes a winding bracket 5 vertically arranged on the machine base 1 and located on one side of the guide rail assembly 9, and a plurality of winding shafts 51 are arranged on the winding bracket 5. A second through hole 212 is provided in the first bracket 21, and each of the winding shafts 51 includes at least one first winding shaft 51a, and the first winding shaft 51a is arranged opposite to the clamping hook device 3 through the second through hole 212.

[0073] Due to the long length of the fishing line, it is generally necessary to temporarily tie the fishing line around the winding bracket 5 during the production of fish hooks. In the present embodiment, the winding bracket 5 is configured as a vertical bracket, and at least a plurality of winding shafts 51 are provided on the side wall of the winding bracket 5 facing the human body. Each of the winding shafts 51 can be adjustably mounted on the winding bracket 5 by means of fasteners such as screws and bolts, so that the winding shafts 51 are easy to adjust the length of the line that can be tied and are easy to disassemble and assemble. The production personnel can appropriately tie the fishing line around each of the winding shafts 51, and the winding bracket 5 is provided with at least one connecting portion 214 with the second through hole 212 and the clamping hook. The first winding shaft 51a opposite to the hook clamping end 31 in the device 3, during the production process, the second through hole 212 can be used for human hands and fishing lines to pass through, and the production personnel will pass the fishing line around the first winding shaft 51a opposite to the hook clamping end 31 and pull it through the second through hole 212 to the hook fixed at the hook clamping end 31, and straighten the fishing line and pre-fix it on the hook, waiting for the wire binding in the winding device 4 to be tied and fixed; by vertically arranging the winding bracket 5 in the machine base 1, the internal structure layout of the bionic hook knotless binding device can be further simplified, thereby reducing the overall volume of the bionic hook knotless binding device.

[0074] Secondly, by arranging a plurality of winding shafts 51 on the winding bracket 5, it is convenient to place and temporarily store longer fishing lines. In addition, by arranging a first winding shaft 51a opposite to the second through hole 212 and the fishhook clamping end 31 on the winding bracket 5, the fishing line can be bound to the fishhook in a straight line direction, thereby facilitating the normal operation of the winding device 4 and improving the yield rate of the fishhook. It should be noted that when the fishing line is wound around each of the winding shafts 51, the fishing line can be moved along each winding shaft 51 and transported to the fishhook under human power.

[0075] like Figures 1 to 7 As shown, the hook clamping device 3 of this embodiment includes a second bracket 32 ​​arranged in the machine base 1 and a fishhook clamp 33 arranged on the second bracket 32, and the fishhook clamping end 31 is arranged on one end of the fishhook clamp 33 close to the winding device 4.

[0076] During the production process, the production personnel can clamp the fishhook through the fishhook clamping end 31 and the fishhook clamp 33. Specifically, the outlet end 41 of the winding device 4 is located on the upper side of the fishhook. The production personnel can pull the tie wire out from the outlet end 41 and tie it around the fishing line and the outside of the fishhook for several turns, and then fix it with glue to achieve pre-positioning of the tie wire. At this time, the rotating device 23 and the sliding device 22 can be started to make the winding device 4 rotate relative to the clamping hook device 3 in a preset manner and perform reciprocating sliding motion at the same time, so as to achieve multiple turns of the tie wire around the fishing line and the outside of the fishhook. When the tie wire is tied, the tie wire is glued and fixed again with glue, and the tie wire and the fishing line end are cut off. At this time, the fishhook with the tied wire is taken out from the fishhook clamp 33, so as to achieve knotless binding of the fishhook. The fishhook clamp 33 can adopt the clamp in the existing bionic hook knotless binding device.

[0077] Optional, see Figure 1 The bionic hook knotless wire binding device also includes a switch 6 and a control box 7 arranged on the base 1, and a touch screen 8 arranged outside the control box 7. The switch 6, the touch screen 8 and the drive device 2 are electrically connected to the control box 7 respectively. In this embodiment, the switch 6 can be set as a switch 6 button located on one side of the touch screen 8. The control box 7 is provided with a power supply and a PLC control system. The power supply can be a DC 24V regulated output. The touch screen 8 is provided with a human-computer interaction interface, such as a start button, a pause button, and step programming related buttons. The required command information is received through the touch screen 8, and then the relevant command signal is received through the PLC control system and the signal is transmitted to the drive device 2 to perform the corresponding action, that is, the winding device 4 is driven by the sliding device 22 and the rotating device 23 to complete the action of binding the line on the fishhook. In addition, an emergency stop switch 6 can also be provided in the base 1.

[0078] like Figures 1 to 7 As shown, the winding device 4 of this embodiment is made of metal material.

[0079] Specifically, metal materials generally have high mechanical strength and durability, and can withstand the tension and pressure during the winding process, ensuring the long-term stable operation of the device.

[0080] In addition, metal materials have good thermal conductivity, which helps to quickly disperse and dissipate heat during the winding process. Metal materials also have good corrosion resistance and can be used in harsh environments, extending the service life of the winding device.

[0081] Furthermore, metal materials are easily processed into various shapes and sizes, and can be custom designed according to the specific needs of the winding device.

[0082] Optionally, since the bionic hook knotless wire binding device in this embodiment adopts the knotless hook binding technology, that is, the wire binding and the fishing line are fixed to the fishhook by glue, in order to accelerate the drying efficiency of the glue, the bionic hook knotless wire binding device also includes a glue quick-dryer arranged in the machine base 1, and the output end of the glue quick-dryer can be opposite to the fishhook clamping end 31. In this embodiment, the glue quick-dryer is used to dry the glue on the fishhook and fix the wire binding and the fishing line on the fishhook. Optionally, the glue quick-dryer can be an ultraviolet lamp, which can be installed in the machine base 1. The ultraviolet lamp includes a lamp head and a deformable lamp pole. The lamp pole can be subjected to external force to move the lamp head to the upper side of the fishhook clamping end 31, and accelerate the drying of the glue by ultraviolet irradiation, thereby improving the wire binding efficiency of the fishhook.

[0083] In the utility model, the hook tying method of the bionic hook knotless wire tying device is as follows:

[0084] S1, fix the fishhook at the fishhook clamping end 31 in the fishhook clamp 33, with the hook handle facing outward; each winding shaft 51 of the winding bracket 5 is wound with a fishing line, and the end of the fishing line is pulled to the hook clamping device 3, so that the binding position in the fishing line is close to the hook handle of the fishhook and parallel to the hook handle of the fishhook; wherein, during the transportation of the fishing line, the end of the fishing line is moved toward the fishhook clamping end 31 by human force through the first through hole 211 in the first bracket 21;

[0085] S2, the winding device 4 stores the binding wire to be tied, and the binding wire is output from the wire outlet 41 by manpower. When the fishing line and the fish hook are ready for the above step S1, the winding device 4 can be moved along the guide rail assembly on the first bracket toward the hook clamping device 3 through the sliding device 22, so that the wire outlet 41 is close to the fish hook. At this time, the production staff can pull the binding wire out of the wire outlet 41 and manually tie it around the outside of the fishing line and the fish hook for 1 to 3 turns, and pre-fix the binding wire with glue. At this time, the glue can be quickly dried by a glue quick dryer;

[0086] S3, the production personnel perform command operations on the touch screen 8, and issue corresponding execution commands to the sliding device 22 and the rotating device 23 through the PLC control system in the control box 7, so that the rotating device 23 drives the winding device 4 to rotate, and drives the outlet end 41 to rotate relative to the fishhook handle, and at the same time, the sliding device 22 drives the first bracket, so that the winding device 4 moves back and forth several times toward the clamping hook device 3 along a preset path, so as to drive the outlet end 41 to move back and forth relative to the fishhook handle, so as to realize the winding of the wire on the fishhook handle, so that the fishing line is bound to the fishhook, and when the winding process is completed, the wire is fixed with glue again. At this time, the glue can be quickly dried by the glue quick dryer, and the fishing line and the wire are cut, and the fishhook with the wire tied is taken out of the fishhook clamp 33, thereby realizing the knotless wire binding processing of the fishhook.

[0087] It should be noted that the path length of the reciprocating movement of the winding device 4 through the sliding device 22 and the number of turns of the winding device 23 can be determined according to the preset length and number of turns of the wire tied on the hook handle.

[0088] It should be noted that in the above hook tying method, the tying line can be the same color as the fishing line;

[0089] Alternatively, in another embodiment, the tie line can be fluorescent green. In the above step S3, after the fluorescent green tie line is tied around the outside of the fish hook and the fishing line in a preset manner, a small amount of glue is used to fix the tie line, wherein the glue amount is only soaked on one side of the fish hook handle, and the other side of the fish hook handle is not fixed with glue for the second time, that is, only one side of the fluorescent green tie line is fixed with glue for the second time, and the other side is not fixed with glue for the second time. The advantage of this design is that when the user is fishing, especially fishing at sea, the fish hook falls into deep water and is subjected to greater water pressure. When the fish hook is moved by the water flow, under the action of sea water pressure, the side of the fluorescent green tie line on the outside of the fish hook handle that is not fixed with glue for the second time is easy to break. At the same time, due to the weakening of deep-sea light, the broken fluorescent green tie line floats with the water flow in the deep sea, so that the tie line on the outside of the fish hook can simulate the bionic form of microorganisms in the sea, thereby achieving the purpose of attracting prey, making it easier for users to catch prey.

[0090] In addition, there is a double fishhook fishing tackle on the market, that is, two fish hooks are tied on the same fishing line. In the actual production process of fish hooks, two bionic hook knotless binding devices with opposite binding directions can be set side by side, and the above-mentioned hook binding method can be used to bind two fish hooks at different positions on the same fishing line. In actual operation, the two fish hooks are respectively fixed on the fish hook clamps 33 in the two bionic hook knotless binding devices in advance, and then the above-mentioned hook binding method is used to realize the knotless binding of the fish hooks through the two bionic hook knotless binding devices, which can reduce the time for feeding and fixing the fish hooks, thereby improving the efficiency of fish hook binding.

[0091] The above examples are only used to further illustrate the technical content of the utility model, so that readers can understand it more easily, but it does not mean that the implementation methods of the utility model are limited to this. Any technical extension or re-creation made based on the utility model is protected by the utility model. The protection scope of the utility model shall be based on the claims.

Claims

1. A bionic hook knotless wire binding device, characterized in that: The invention comprises a machine base (1), a driving device (2), a hook clamping device (3) and a winding device (4), wherein the hook clamping device (3) and the winding device (4) are arranged opposite to each other, the hook clamping device (3) is provided with a hook clamping end (31) for fixing a fishhook, and the winding device (4) is provided with a wire outlet end (41), the driving device (2) comprises a first bracket (21), a sliding device (22) and a rotating device (23), the winding device (4) is rotatably connected to the first bracket (21), and the rotating device (23) is arranged on the first bracket (21) and is connected to the winding device (4). The machine base (1) is connected to a clamping hook device (4), the rotating device (23) is capable of driving the winding device (4) to rotate circumferentially, thereby driving the outlet terminal (41) to rotate circumferentially; a guide rail assembly (9) is provided on the machine base (1), the first bracket (21) is slidably connected to the guide rail assembly (9), the sliding device (22) is provided on the machine base (1) and is connected to the first bracket (21), the sliding device (22) is capable of driving the first bracket (21) to reciprocate along the guide rail assembly (9) in a direction close to or away from the clamping hook device (3), thereby driving the outlet terminal (41) to reciprocate.

2. A bionic hook knotless wire binding device as claimed in claim 1, characterized in that: The sliding device (22) comprises a first driving motor (223) fixed on the machine base (1), and a first transmission assembly (224) connected between the first driving motor (223) and the first bracket (21); the first transmission assembly (224) comprises a driving wheel (2241), a first transmission belt (2242) and a driven wheel (2243); the driving wheel (2241) is arranged on the output shaft of the first driving motor (223); the driven wheel (2243) and the driving wheel (2241) are arranged at intervals; two ends of the first transmission belt (2242) are respectively sleeved on the outer sides of the driven wheel (2243) and the driving wheel (2241); and an assembly portion connected to a portion of the first transmission belt (2242) is arranged on one side of the first bracket (21).

3. A bionic hook knotless wire binding device as claimed in claim 2, characterized in that: The assembly portion comprises an assembly block (214) and a connection assembly, wherein the connection assembly enables the assembly block (214) to be detachably connected to the first bracket (21), and a portion of the first transmission belt (2242) is assembled between the assembly block (214) and the first bracket (21).

4. A bionic hook knotless wire binding device as claimed in claim 3, characterized in that: The connection assembly comprises a connection member, the assembly block (214) is provided with a first assembly hole (216), the first bracket (21) is provided with a second assembly hole (218) corresponding to the first assembly hole (216), and the connection member passes through the first assembly hole (216) to be connected with the second assembly hole (218).

5. A bionic hook knotless wire binding device as claimed in claim 3, characterized in that: A plurality of anti-skid protrusions (217) are provided on one side of the assembly block (214) facing the first bracket (21), and each of the anti-skid protrusions (217) abuts against a side wall of part of the first transmission belt (2242).

6. A bionic hook knotless wire binding device as claimed in claim 1, characterized in that: The rotating device (23) comprises a second drive motor (231) fixedly mounted on the first bracket (21) and a second transmission assembly connected to the second drive motor (231); the winding device (4) is connected to the second transmission assembly in a transmission manner; the second transmission assembly comprises a first transmission member (232) and a second transmission member (233); a first through hole (211) is provided on the first bracket (21); an output shaft of the second drive motor (231) passes through the first through hole (211) and is connected to the first transmission member (232); the second transmission member (233) is connected between the first transmission member (232) and the winding device (4); the second drive motor (231) can drive the first transmission member (232) and the second transmission member (233) to generate linkage, so that the winding device (4) can rotate circumferentially relative to the first bracket (21).

7. A bionic hook knotless wire binding device as claimed in claim 6, characterized in that: The winding device (4) comprises a winding housing (42) rotatably connected to the first bracket (21) and a transmission structure (43) arranged on one side of the winding housing (42), the transmission structure (43) comprising a wheel groove portion (431) arranged on the outer wall of the winding housing (42), the second transmission member (233) being a second transmission belt, one end of the second transmission belt being sleeved on the outer side of the wheel groove portion (431), and the other end being sleeved on the outer side of the first transmission member (232).

8. A bionic hook knotless wire binding device as claimed in claim 1, characterized in that: It also includes a winding bracket (5) vertically arranged on the machine base (1) and located on one side of the guide rail assembly (9), wherein a plurality of winding shafts (51) are arranged on the winding bracket (5), a second through hole (212) is provided in the first bracket (21), each of the winding shafts (51) includes at least one first winding shaft (51a), and the first winding shaft (51a) is arranged opposite to the clamping hook device (3) through the second through hole (212).

9. A bionic hook knotless wire binding device as claimed in claim 1, characterized in that: The hook clamping device (3) comprises a second bracket (32) arranged in the machine base (1) and a fishhook clamp (33) arranged on the second bracket (32), and the fishhook clamping end (31) is arranged on an end of the fishhook clamp (33) close to the winding device (4).

10. A bionic hook knotless wire binding device according to any one of claims 1 to 9, characterized in that: The winding device (4) is made of metal material.

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