Double-station synchronous high-speed binding machine

Abstract

The utility model belongs to the field of fishing gear processing equipment, and discloses a double-station synchronous high-speed binding machine which comprises a supporting platform, a first clamp, a second clamp, a first wire outlet device, a second wire outlet device, a first motor, a second motor, a first winding component and a second winding component. A first wire wheel and a second wire wheel are rotatably mounted on the supporting platform; the first wire outlet device is fixedly arranged on the supporting platform close to the first clamp, and the second wire outlet device is fixedly arranged on the supporting platform close to the second clamp; the first motor is in transmission connection with the first clamp through a first transmission shaft. The second motor is in transmission connection with the second clamp through a second transmission shaft. The position relation of the first motor and the second motor is that the first motor and the second motor are fixedly installed on the supporting platform side by side, or the first motor and the second motor are installed oppositely. The two ends of the sub-line can be bound on different fishhooks at the same time, the production efficiency and the productivity of the sub-line double-hook are improved, and the sub-line double-hook forming device is suitable for manufacturing the sub-line double-hook.

Description

Technical Field

[0001] The utility model belongs to the field of fishing gear processing equipment, in particular to a double-station synchronous high-speed binding machine. Background Art

[0002] In the fishing gear industry, a sub-line is a section of fishing line that connects the main line and the fishhook, which can protect the main line from being broken. The sub-line double hook refers to connecting fish hooks at the ends of a sub-line, and connecting the middle area of ​​the sub-line to the main line. When making traditional sub-line double hooks, the ends of the sub-line are directly tied by hand, and the sub-line is wrapped around the hook handle of the fishhook. The process is usually to wrap one end of the fishhook first and then the other end of the fishhook, which makes the production efficiency of the sub-line double hook low and seriously restricts production capacity. Utility Model Content

[0003] In order to solve the above deficiencies in the prior art, the utility model aims to provide a double-station synchronous high-speed binding machine, which can simultaneously bind the two ends of the sub-line to the hook handles of different fish hooks, thereby solving the problem of low production capacity when producing double hooks for sub-lines.

[0004] To achieve the above-mentioned purpose, the technical solution adopted by the utility model is as follows: a double-station synchronous high-speed binding machine, comprising a supporting platform, a first clamp, a second clamp, a first wire outlet device, a second wire outlet device, a first motor, and a second motor; a first wire wheel and a second wire wheel are rotatably mounted on the supporting platform; the first wire outlet device is fixedly arranged on the supporting platform close to the first clamp, and the second wire outlet device is fixedly arranged on the supporting platform close to the second clamp; the first motor is connected to the first clamp through a first transmission shaft, and the second motor is connected to the second clamp through a second transmission shaft; a first winding component is fixedly arranged on the first clamp, and a second winding component is fixedly arranged on the second clamp; the positional relationship between the first motor and the second motor is that the first motor and the second motor are fixedly arranged side by side on the supporting platform, and a reversing component is arranged on the axial extension line of the connection line between the first motor and the second motor, or the first motor and the second motor are installed relative to each other.

[0005] As a limitation of the present utility model: the double-station synchronous high-speed binding machine also includes a wire arrangement slide slidably arranged on a support platform, and a reciprocating motion device for driving the wire arrangement slide to perform reciprocating motion; the first wire wheel, the second wire wheel, the first wire outlet device and the second wire outlet device are fixedly arranged on the wire arrangement slide.

[0006] As a limitation of the present utility model: the reciprocating motion device includes a third motor and a lead screw; the lead screw is fixedly arranged on the support platform, and the third motor is connected to the end of the lead screw away from the first motor; a third slider is sleeved on the lead screw, and the cable arrangement slide and the third slider are detachably connected.

[0007] As a limitation of the utility model: a length adjustment shaft arranged along the axial extension line is also fixedly installed on the support platform; the length adjustment shaft includes a T-shaped optical axis support and a cross fixing clamp, the reversing component is installed on the cross fixing clamp, and the cross fixing clamp is connected to the T-shaped optical axis support by a locking screw.

[0008] As a limitation of the present invention: a controller is arranged on the supporting platform for controlling the first motor, the second motor and the third motor.

[0009] As a limitation of the present utility model: the first clamp includes a first clamp and a second clamp that are detachably pressed together, and the second clamp includes a third clamp and a fourth clamp that are detachably pressed together; the first motor is connected to the first clamp through a first transmission shaft, and the second motor is connected to the third clamp through a second transmission shaft; the first clamp is provided with a first slide groove, and a first slider is slidably provided in the first slide groove; the third clamp is provided with a second slide groove, and a second slider is slidably provided in the second slide groove; the first clamp is provided with a first protrusion, and the second clamp is provided with a first groove, and the position and size of the first protrusion and the first groove are matched; the third clamp is provided with a second protrusion, and the fourth clamp is provided with a second groove, and the position and size of the second protrusion and the second groove are matched.

[0010] As a limitation of the utility model: a first limiting hole with an internal thread is opened in the middle of the first clamp, a second limiting hole corresponding to the position of the first limiting hole and having a size larger than the first limiting hole is opened in the second clamp, and a threaded handle that passes through both the first limiting hole and the second limiting hole is detachably installed in the first limiting hole; a third limiting hole with an internal thread is opened in the middle of the third clamp, and a fourth limiting hole corresponding to the position of the third limiting hole and having a size larger than the third limiting hole is opened in the fourth clamp, and a threaded handle that passes through both the third limiting hole and the fourth limiting hole is detachably installed in the third limiting hole.

[0011] As a limitation of the present invention: a first slot for passing the sub-wire is provided at one end of the first clamp away from the first motor, and a second slot for passing the sub-wire is provided at one end of the second clamp away from the second motor.

[0012] As a definition of the utility model: the shapes of the first groove and the second groove are both "Γ" shapes, the shapes of the first groove opening and the second groove opening correspond to the upper part of the "Γ" shape, and the structure of the first groove away from its groove direction and the structure of the second groove away from its groove direction correspond to the lower part of the "Γ" shape.

[0013] As a limitation of the present invention: when the first motor and the second motor are installed relative to each other, it also includes a first slide and a second slide, the first motor is fixedly connected to the first slide, and the second motor is fixedly connected to the second slide.

[0014] Due to the adoption of the above technical scheme, compared with the prior art, the beneficial effect achieved by the utility model is that the two ends of the sub-line can be tied to different fish hooks at the same time, the production efficiency and production capacity of the sub-line double hooks are improved, and the product quality of the sub-line double hooks is further improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The present invention is described in further detail below in conjunction with the accompanying drawings and specific embodiments.

[0016] Figure 1 It is a schematic diagram of the structure of an embodiment of the utility model;

[0017] Figure 2 This is a schematic structural diagram of a first clip according to an embodiment of the utility model;

[0018] Figure 3 This is a schematic structural diagram of a second clip in an embodiment of the utility model;

[0019] Figure 4 This is a schematic structural diagram of a third clip in an embodiment of the utility model;

[0020] Figure 5 This is a schematic structural diagram of a fourth clip of an embodiment of the utility model;

[0021] Figure 6 It is a schematic structural diagram of the length adjustment shaft of an embodiment of the utility model.

[0022] In the figure: 1-support platform, 2-first clamp, 3-second clamp, 4-first outlet device, 5-second outlet device, 6-first motor, 7-second motor, 8-first wire wheel, 9-second wire wheel, 10-first transmission shaft, 11-second transmission shaft, 12-first winding component, 13-second winding component, 14-reversing component, 15-cable slide, 16-third motor, 17-screw, 18-third slider, 19-length adjustment shaft, 20-T-type optical axis support, 21-cross fixing clamp, 22-locking screw, 23-control Device, 24-first clip, 25-second clip, 26-third clip, 27-fourth clip, 28-first slide groove, 29-first slider, 30-second slide groove, 31-second slider, 32-first protrusion, 33-first groove, 34-second protrusion, 35-second groove, 36-first limiting hole, 37-second limiting hole, 38-third limiting hole, 39-fourth limiting hole, 40-first groove, 41-second groove, 42-first slide, 43-second slide, 44-first damper, 45-second damper, 46-fish hook. DETAILED DESCRIPTION

[0023] The preferred embodiment of the utility model is described below in conjunction with the accompanying drawings. It should be understood that the double-station synchronous high-speed binding machine described here is a preferred embodiment, which is only used to illustrate and explain the utility model and does not constitute a limitation of the utility model.

[0024] The directional terms or positional relationships such as "up", "down", "left" and "right" described in the present invention are based on the directional relationships in the drawings of the present invention specification and are only for the convenience of describing the present invention and simplifying the description. They do not indicate or imply that the device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the content protected by the present invention.

[0025] like Figure 1 As shown, a double-station synchronous high-speed binding machine includes a support platform 1, a controller 23, and a first motor 6 and a second motor 7 fixedly mounted on the support platform 1. The first motor 6 and the second motor 7 are electrically connected to the controller 23, and the controller 23 can control the rotation speed of the first motor 6 and the second motor 7 and the number of layers planned to be bound. The principle and method of its control are prior art, and this embodiment will not be described in detail here. Preferably, the model of the first motor 6 and the second motor 7 are the same as the set operating parameters, which is conducive to the same spindle speed driven by the two motors, and is convenient for the simultaneous binding of two fish hooks. Due to the dual motor setting, the sub-line can be tied to the hook handles of the two fish hooks at the same time during the process of making the sub-line double hooks, thereby improving the production efficiency and production capacity of the sub-line double hooks.

[0026] At the same time, a first transmission shaft 10 is connected to one side of the first motor 6, and the first fixture 2 is in transmission connection with the first transmission shaft 10; a second transmission shaft 11 is connected to the second motor 7, and the second fixture 3 is in transmission connection with the second transmission shaft 11. Through the transmission action of the transmission shaft, the first fixture 2 and the second fixture 3 can be driven by the first motor 6 and the second motor 7 at the same time to rotate at a high speed.

[0027] In order to increase the friction between the sub-line and the fishhook, it is convenient to tie the sub-line to the fishhook, and at the same time, better fix the tied sub-line on the fishhook, so before and after tying the sub-line, it is necessary to tie a layer of spare line on the fishhook. The spare line can be a fishing line or a nylon line. As long as it can better fix the sub-line between the two layers of lines, this embodiment does not make too many restrictions on this. Therefore, the first wire wheel 8 and the second wire wheel 9 can also be rotatably installed on the support platform 1. A large amount of spare line can be wound on the first wire wheel 8 and the second wire wheel 9 in advance so that it can be used at any time when processing the fishhook. In order to facilitate the tying of the spare line and avoid the distance between the outlet device and the clamp being too long to reduce the tying quality, it is necessary to fix the spare line next to the fishhook to be processed. Therefore, the first outlet device 4 and the second outlet device 5 are also fixedly arranged on the support platform 1. Among them, the first outlet device 4 is fixedly arranged on the support platform 1 close to the first clamp 2, and the second outlet device 5 is fixedly arranged on the support platform 1 close to the second clamp 3. Preferably, the first wire outlet device 4 and the second wire outlet device 5 are hollow cylindrical structures, and the spare wires led out from the first wire wheel 8 and the second wire wheel 9 can pass through the above hollow cylindrical structures respectively.

[0028] Furthermore, a first damper 44 is connected to one side of the first wire wheel 8, and a second damper 45 is connected to one side of the second wire wheel 9. During the high-speed binding process, the first damper 44 and the second damper 45 will provide resistance to the first wire wheel 8 and the second wire wheel 9 respectively, so that the first wire wheel 8 and the second wire wheel 9 can stop rotating.

[0029] In the process of tying, in order to prevent the spare line from being entangled in the same position on the hook handle, it is necessary to make the fishhook reciprocate relative to the first outlet device 4 and the second outlet device 5 so that the spare line can be tied to the fishhook evenly. In order to solve this problem, the tying machine further includes a wire arrangement slide 15 slidably arranged on the support platform 1, and a reciprocating motion device. The first outlet device 4, the second outlet device 5, the first wire wheel 8, and the second wire wheel 9 are installed on the wire arrangement slide 15, and the reciprocating motion device is used to drive the wire arrangement slide 15 to move. The reciprocating motion device includes a third motor 16 and a lead screw 17, a third slider 18 is sleeved on the lead screw 17, the cable arrangement slide 15 and the third slider 18 are detachably connected, the third motor 16 and the lead screw 17 are fixedly arranged on the support platform 1, the third motor 16 is connected to the end of the lead screw 17 away from the first motor 6, and the rotational motion of the third motor 16 is converted into the linear motion of the third slider 18 through the lead screw 17, thereby driving the cable arrangement slide 15 connected to the top surface of the third slider 18 to perform linear reciprocating motion.

[0030] Therefore, the reciprocating motion device is used to directly drive the cable arrangement slide 15 to reciprocate relative to the first motor 6 and the second motor 7, and according to the connection relationship between the above-mentioned components, the fishhook is indirectly reciprocated relative to the first outlet device 4 and the second outlet device 5. Therefore, the spare line is evenly wound to different positions of the hook handle, and the binding effect of the spare line is improved. Of course, the reciprocating motion device can also adopt other mechanisms capable of realizing reciprocating motion in the prior art, such as a cylinder, etc.

[0031] Furthermore, the first wire outlet device 4 and the second wire outlet device 5 are fixedly arranged at positions close to the first clamp 2 and the second clamp 3 respectively; the first wire wheel 8 is rotatably arranged on a side of the first wire outlet device 4 away from the first clamp 2, and the second wire wheel 9 is rotatably arranged on a side of the second wire outlet device 5 away from the second clamp 3.

[0032] In specific operation, the spare line on the first reel 8 can be pulled out, passed through the first outlet device 4, and manually wound several times on the hook handle of the fishhook to fix the spare line, and then the motor is started, and more spare line is drawn out from the first reel 8 through the rotation of the motor to further wind around the hook handle. However, when the motor just starts to rotate, the manually wound line is loose and may fall off the hook handle, causing the remaining spare line to lose the support point on the hook handle and fall off the first clamp 2. Therefore, when the spare line is manually wound, a fixing component needs to be set to further fix the spare line.

[0033] To compensate for the above defects, a first winding component 12 is also fixedly provided on the first clamp 2. Specifically, the first winding component 12 can be fixedly provided on the upper surface or the lower surface of the first clamp 2, and this embodiment does not impose too many restrictions on this, as long as it can further fix the spare line on the first reel 8. In addition, a second winding component 13 is also fixedly provided on the second clamp 3, and the setting method of the second winding component 13 is similar to that of the first winding component 12, and no repeated description is made for comparison, as long as it can further fix the spare line on the second reel 9.

[0034] Before tying the sub-line, if the sub-line is only manually wound around the hook handle, the winding will not be firm and the sub-line will fall off the hook handle. Therefore, it is also necessary to further wind the manually wound sub-line around the first winding component 12 and the second winding component 13 for several turns to further fix the sub-line and prevent the sub-line from falling off the hook handle during tying.

[0035] Furthermore, since the fishhook needs to be better clamped in the clamp, the first clamp 2 includes a detachable first clamp 24 and a second clamp 25 that are pressed together. The fishhook can be placed between the first clamp 24 and the second clamp 25, and the first clamp 24 and the second clamp 25 are pressed tightly to fix the fishhook. Among them, the first motor 6 is connected to the first clamp 24 through the first transmission shaft 10, and one end of the first transmission shaft 10 is fixedly connected to the side wall of the first clamp 24 close to the first motor 6, and the other end is connected to the first motor 6. In this way, when the first motor 6 is started, the first clamp 2 can be driven to rotate at a high speed. Before tying, the curved part of the fishhook can be placed between the first clamp 24 and the second clamp 25, and the hook handle can be exposed at the same time; after adjusting the position of the fishhook, the tying machine is turned on to tie the sub-line.

[0036] In addition, the second clamp 3 is used to clamp another fishhook to be wound around the sub-line, and the second clamp 3 includes a third clamp 26 and a fourth clamp 27 that are detachably pressed together. Among them, the second motor 7 is connected to the third clamp 26 through the second transmission shaft 11, and one end of the second transmission shaft 11 is fixedly connected to the side wall of the third clamp 26 close to the second motor 7, and the other end is connected to the second motor 7. Therefore, when the second motor 7 is started, the second clamp 3 can be driven by the second motor 7 to rotate at a high speed. Similar to the first clamp 2, the position of the fishhook is adjusted before tying, and the sub-line can be tied.

[0037] In order to better fix the fishhook according to the size of the fishhook, a first slide groove 28 is provided on the first clamping piece 24, and a first slider 29 is slidably provided in the first slide groove 28, and the first slider 29 can slide in the first slide groove 28. When processing a fishhook of shorter length, the curved part of the fishhook can be pressed against the side of the first slider 29 away from the first motor 6, and the first slider 29 can be appropriately slid to change the position of the fishhook relative to the first clamping piece 24, so that the hook handle of the fishhook can extend as much as possible from the side of the first clamping piece 24 away from the first motor 6. When processing a fishhook of longer length, the first slider 29 can be moved in the reverse direction with reference to the above-mentioned operation method to tie up the longer fishhook. In this way, the first clamp 2 can better adapt to fishhook of different sizes, which is conducive to tying the sub-line to the hook handle of the fishhook.

[0038] Accordingly, in order to adapt to fish hooks of different sizes, a second slide groove 30 is provided on the third clamping piece 26, and a second slider 31 is slidably provided in the second slide groove 30, and the second slider 31 can slide in the second slide groove 30. When tying fish hooks of different sizes, the method of adjusting the second slider 31 is the same as the method of adjusting the first slider 29, and no repeated description is given here.

[0039] After adjusting the position of the fishhook on the first clamp 24, the second clamp 25 needs to be covered on the first clamp 24 to press the fishhook tightly. In order to make the position between the first clamp 24 and the second clamp 25 relatively stable when the first clamp 2 rotates at high speed, a first protrusion 32 is provided on the first clamp 24, and a first groove 33 is provided on the second clamp 25. The first protrusion 32 can be seamlessly matched with the first groove 33, which helps to avoid relative sliding between the first clamp 24 and the second clamp 25. In order to make the first protrusion 32 and the first groove 33 fit well, the size of the first protrusion 32 and the first groove 33, as well as the setting position of the first protrusion 32 on the first clamp 24 and the setting position of the first groove 33 on the second clamp 25 are adapted. Preferably, the shape of the first protrusion 32 is a rectangular boss, and the shape of the first groove 33 should be a rectangular groove. The size of the rectangular groove is the same as that of the rectangular boss, and when the first clamp 24 and the second clamp 25 are close to each other and buckled, the rectangular boss can be seamlessly matched with the rectangular groove. Therefore, when the first clamp 2 rotates at a high speed, the second clamp 25 is not easy to slide relative to the first clamp 24, which is beneficial to the binding of the sub-line.

[0040] After adjusting the position of the fishhook on the third clamp 26, the fourth clamp 27 needs to be covered on the third clamp 26 to press the fishhook tightly. In order to make the position between the third clamp 26 and the fourth clamp 27 relatively stable when the second clamp 3 rotates at high speed, a second protrusion 34 is provided on the third clamp 26, and a second groove 35 is provided on the fourth clamp 27. The second protrusion 34 can be seamlessly matched with the second groove 35 to avoid relative sliding between the third clamp 26 and the fourth clamp 27. In order to make the second protrusion 34 and the second groove 35 fit well, the size of the second protrusion 34 and the second groove 35, as well as the setting position of the second protrusion 34 on the third clamp 26 and the setting position of the second groove 35 on the fourth clamp 27 are adapted. Preferably, the second projection 34 is in the shape of a rectangular boss, and the second groove 35 is in the shape of a rectangular groove. The size of the rectangular groove is the same as that of the rectangular boss, and when the third clamp 26 and the fourth clamp 27 are close to each other and buckled, the rectangular boss can be seamlessly matched with the rectangular groove. Therefore, when the second clamp 3 rotates at a high speed, it is not easy for the fourth clamp 27 to slide relative to the third clamp 26, which is conducive to the binding of the sub-wires.

[0041] Furthermore, in order to better press the first clamp 24 and the second clamp 25 together, a first limiting hole 36 with internal threads is provided in the middle of the first clamp 24, and a second limiting hole 37 corresponding to the position of the first limiting hole 36 and having a size larger than the first limiting hole 36 is provided in the middle of the second clamp 25. When the first clamp 24 and the second clamp 25 are buckled together, the center of the first limiting hole 36 and the center of the second limiting hole 37 can overlap with each other, forming a passage for the threaded handle to pass through. Through the mutual cooperation between the threads on the threaded handle and the threads on the side wall of the first limiting hole 36, the threaded handle can perform vertical linear movement relative to the plane determined by the opening of the first limiting hole 36. When the first clamp 24 and the second clamp 25 need to be clamped together, the first clamp 24 and the second clamp 25 can be buckled together, and the threaded handle can be screwed into the channel clockwise. At this time, the threaded handle will simultaneously penetrate the first limiting hole 36 and the second limiting hole 37, and through the interaction between the threads, the first clamp 24 and the second clamp 25 are continuously clamped, which plays a role of tight pressing; when the binding is completed, when the first clamp 24 and the second clamp 25 need to be separated from each other, the threaded handle in the channel can be screwed out counterclockwise to take out the tied fishhook. In addition, the threaded handle can also be rotated counterclockwise to achieve the effect of clamping the clamp, and correspondingly, the threaded handle can be rotated clockwise to separate the clamps from each other. Therefore, by detachably installing the threaded handle in the first limiting hole 36, the first clamp 24 and the second clamp 25 can be further tightly pressed together to prevent the fishhook from falling off during the binding process.

[0042] Similarly, in order to better press the third clamp 26 and the fourth clamp 27 together, a third limiting hole 38 with internal threads is provided in the middle of the third clamp 26, and a fourth limiting hole 39 corresponding to the position of the third limiting hole 38 and larger in size than the third limiting hole 38 is provided in the middle of the fourth clamp 27. When the third clamp 26 and the fourth clamp 27 are buckled together, the center of the third limiting hole 38 and the center of the fourth limiting hole 39 can overlap with each other, forming a passage for the threaded handle to pass through. Through the mutual cooperation between the threads on the threaded handle and the threads on the side wall of the third limiting hole 38, the threaded handle can perform vertical linear movement relative to the plane determined by the opening of the third limiting hole 38. When the third clamping piece 26 and the fourth clamping piece 27 need to be clamped together, the third clamping piece 26 and the fourth clamping piece 27 can be buckled together, and the threaded handle can be screwed into the channel clockwise. At this time, the threaded handle will simultaneously penetrate the third limiting hole 38 and the fourth limiting hole 39, and through the interaction between the threads, the third clamping piece 26 and the fourth clamping piece 27 are continuously clamped, and the effect of tight pressing is achieved; when the binding is completed, the third clamping piece 26 and the fourth clamping piece 27 need to be separated from each other, the threaded handle in the channel can be screwed out counterclockwise to take out the tied fishhook. In addition, the threaded handle can also be rotated counterclockwise to achieve the effect of clamping the clamping piece, and accordingly, the threaded handle can be rotated clockwise to separate the clamping pieces from each other. That is, by detachably installing the threaded handle in the third limiting hole 38, the third clamping piece 26 and the fourth clamping piece 27 can be further tightly pressed together to prevent the fishhook from falling off during the binding process.

[0043] Before tying the sub-line to the hook handle of the fishhook, the sub-line needs to be as close to the hook handle as possible, so a first slot 40 for the sub-line to pass through is provided at the end of the first fixture 2 away from the first motor 6. The notch of the first slot 40 on the side wall of the first fixture 2 is provided in a direction away from the hook handle of the fishhook, and the slot body extends in a direction close to the hook handle of the fishhook and does not exceed the hook handle of the fishhook. Before tying the sub-line to the hook handle, the sub-line needs to be passed through the notch, and the sub-line is moved in the direction of the hook handle of the fishhook until the sub-line is against the side wall of the slot body at the closest point to the hook handle of the fishhook. In this way, the sub-line is fixed at a position near the hook handle, so that the sub-line can be easily wrapped around the hook handle when tying.

[0044] In order to bring the other end of the sub-line as close to the hook handle as possible, a second slot 41 for the sub-line to pass through is provided at the end of the second fixture 3 away from the second motor 7. The notch of the second slot 41 on the side wall of the second fixture 3 is provided in a direction away from the hook handle of the fishhook, and the slot body extends in a direction close to the hook handle of the fishhook and does not exceed the hook handle of the fishhook. Before tying the sub-line to the hook handle, the sub-line needs to be passed through the notch, and the sub-line is moved in the direction of the hook handle of the fishhook until the sub-line is against the side wall of the slot body at the position closest to the hook handle of the fishhook. In this way, the sub-line is fixed at a position near the hook handle, so that the sub-line can be easily wrapped around the hook handle when tying.

[0045] Furthermore, the shape of the first groove 40 is a "Γ" shape, the shape of the notch of the first groove 40 corresponds to the upper part of the "Γ" shape, and the structure of the first groove 40 away from the notch direction corresponds to the lower part of the "Γ" shape. At the same time, the end of the first groove 40 away from the notch direction is closer to the side wall of the first clamp 2 than the starting end of the first groove 40 away from the notch direction, so that the part of the first groove 40 away from the notch direction forms a curved structure. Therefore, the sub-line will be better fixed in the direction close to the hook handle, preventing the sub-line from sliding relative to the first clamp 2 when tying the sub-line, thereby ensuring the quality of the sub-line tying.

[0046] Similarly, the shape of the second groove 41 is a "Γ" shape, the shape of the notch of the second groove 41 corresponds to the upper part of the "Γ" shape, and the structure of the second groove 41 away from the notch direction corresponds to the lower part of the "Γ" shape. At the same time, the end of the second groove 41 away from the notch direction is closer to the side wall of the second clamp 3 than the starting end of the second groove 41 away from the notch direction, so the part of the second groove 41 away from the notch direction forms a curved structure. Therefore, the sub-line will be better fixed in the direction close to the hook handle to prevent the sub-line from sliding relative to the second clamp 3 when tying the sub-line, thereby ensuring the quality of the sub-line tying.

[0047] In the binding machine, the first motor 6 and the second motor 7 are arranged on the supporting platform 1 in a side-by-side arrangement or a relative arrangement.

[0048] When the first motor 6 and the second motor 7 are installed side by side on the support platform 1, a reversing component 14 is provided on the axial extension line of the line connecting the first motor 6 and the second motor 7. Before tying the sub-line, it is necessary to manually wrap the sub-line around the hook handle of the fishhook in the first clamp 2, and pass the wrapped sub-line around the reversing component 14 to change the extension direction of the sub-line, and then manually wrap the end of the sub-line after the direction change around the hook handle of the fishhook in the second clamp 3, which can shorten the distance between adjacent parts on the support platform 1, thereby reducing the volume and floor space of the equipment. Preferably, the reversing component 14 is a pulley, so that the sub-line can better fit the curved surface of the pulley surface, reduce the resistance generated when the sub-line moves relative to the reversing component 14, and prevent the sub-line from being cut due to sharp edges on the reversing component 14. In order to avoid the tendency of relative twisting of the two ends of the sub-line during high-speed rotation, which would lead to a decrease in the tension value of the sub-line itself, the main shafts driven by the first motor 6 and the second motor 7 rotate in opposite directions. This will cause the self-winding forces generated in the same sub-line to cancel each other out, avoiding excessive twisting of the sub-line itself, and keeping the tension value of the sub-line itself at a relatively ideal level, thereby effectively improving the tensile strength of the sub-line.

[0049] In order to adapt to sub-lines of different lengths, a length adjustment shaft 19 arranged along the axial extension line is also fixedly installed on the support platform 1, and the length adjustment shaft 19 can be used to adjust the distance between the reversing component 14 and the first clamp 2 and the second clamp 3. The length adjustment shaft 19 includes a T-shaped optical axis support 20 and a cross fixing clamp 21. The reversing component 14 is installed on the cross fixing clamp 21, and the cross fixing clamp 21 is connected to the T-shaped optical axis support 20 through a locking screw 22. When the sub-line is long, the locking screw 22 can be loosened to make the cross fixing clamp 21 slide on the T-shaped optical axis support 20 away from the first clamp 2 and the second clamp 3, thereby making the reversing component 14 also away from the first clamp 2 and the second clamp 3. This can prevent the overlong sub-line from accidentally entangled with other components during high-speed binding, and reduce the influence of the overlong sub-line on the binding effect. When the sub-line is shorter, the cross fixing clamp 21 can be slid toward the first clamp 2 and the second clamp 3 . The operation method is similar to the above process and will not be described again here.

[0050] When the first motor 6 and the second motor 7 are relatively mounted on the support platform 1, the positions of the first clamp 2 and the second clamp 3, and the connection methods with the first motor 6 and the second motor 7 are the same as described above, and will not be described again here. Since the first clamp 2 and the second clamp 3 are also arranged face to face, the sub-line manually wound from the hook handle of the fishhook on the first clamp 2 does not need to be reversed, and can be directly wound to the hook handle of the fishhook on the second clamp 3. Therefore, in this case, it is not necessary to set the reversing component 14 on the support platform 1. It is only necessary to adjust the distance between the first motor 6 and the second motor 7 to adapt to sub-lines of different lengths, avoid redundancy of excessively long sub-lines, and avoid the possibility that excessively long sub-lines may be accidentally wound around other components during high-speed binding.

[0051] Therefore, two independent guide rails (not shown in the figure) are fixedly arranged on the support platform 1, and a first slide (not shown in the figure) and a second slide (not shown in the figure) are slidably arranged in each guide rail, wherein the first slide is fixedly connected to the first motor 6, and the second slide is fixedly connected to the second motor 7. Preferably, the first slide can be fixedly arranged below the first motor 6 in the form of a base, and the second slide is also fixedly arranged below the second motor 7 in the form of a base. In this embodiment, there is no excessive restriction on the fixed connection method between the slide and the motor, as long as the slide can be moved, the motor can be moved indirectly. When the sub-line is long, the first slide or the second slide can be manually moved to increase the distance between the first motor 6 and the second motor 7, and the first clamp 2 and the second clamp 3 are indirectly moved away from each other. Thus, the purpose of conveniently adjusting the distance between the first clamp 2 and the second clamp 3 according to the length of the sub-line is achieved, which is conducive to the binding process of the sub-line. When the sub-line is short, the slide can be slid to make the two clamps relatively close, and the operation method is similar to the above process, and no repeated description is given here.

[0052] When using the double-station synchronous high-speed binding machine, it is necessary to first unscrew the threaded handle from the first clamp 24 and the second clamp 25, separate the first clamp 24 and the second clamp 25 from each other, place the curved portion of the fishhook against the first slider 29, and adjust the position of the first slider 29 according to the size of the fishhook so that the fishhook handle extends out of the side edge of the first clamp 24. At this time, the second clamp 25 is buckled on the first clamp 24 and further fixed with the threaded handle. The other fishhook handle is fixed between the third clamp 26 and the fourth clamp 27 in a similar manner to the above operation.

[0053] Since the surface of the hook handle is relatively smooth, only tying one layer of sub-line may result in less friction between the sub-line and the hook handle, so that when the fishhook is used, the fishhook will fall off the sub-line, which is not conducive to the use of double hooks of sub-line. Therefore, it is necessary to tie a layer of spare line on the hook handle in advance to form a first tying line layer to increase the friction between the sub-line and the hook handle. At the same time, the length of a single sub-line is limited. In order to avoid waste, it cannot be tied on the hook handle as many times as the spare line. Therefore, it is necessary to tie another layer of spare line on the sub-line after tying the sub-line to form a third tying line layer to tightly cover the already tied sub-line.

[0054] Thus, the spare line on the first reel 8 is led out and passed through the first outlet device 4, and the spare line is manually wound several times on the hook handle exposed in the first fixture 2, and then the spare line is wound several times on the first winding component 12 to further fix the spare line; in a similar manner, the spare line of the second reel 9 can be wound and fixed to the hook handle of the fishhook exposed in the second fixture 3 and the second winding component 13. At this time, the speed of the first motor 6 and the second motor 7 can be controlled by controlling the controller 23, and the first motor 6 and the second motor 7 are turned on to wind the spare lines on the two reels onto different hook handles respectively to form a first binding line layer. Since the spare line is further fixed on the winding component in the previous operation, it is sufficient to cut the connection between the winding component and the corresponding hook handle.

[0055] Then, take a sub-line of moderate length, manually wrap one end of the sub-line around the hook handle in the first fixture 2 for several turns, and manually wrap it around the first winding component 12 for several turns for further fixation; pass the other end of the sub-line around the reversing component 14, manually wrap it around the hook handle in the second fixture 3 for several turns, and manually wrap it around the second winding component 13 for several turns for further fixation. At this time, the first motor 6 and the second motor 7 are turned on by the controller 23, and the speed of the first motor 6 and the second motor 7 and the number of layers planned to be tied are controlled, and the two ends of the sub-line are respectively and simultaneously wound on different hook handles to form a second binding line layer. The above-mentioned practice of tying the sub-line to the hook handle at the same time abandons the process of first winding one end of the hook and then winding the other end of the hook in the traditional process of making the sub-line double hook in the fishing gear industry. Therefore, the production efficiency and production capacity are greatly improved, and the product quality of the sub-line double hook is improved. After the second binding is completed and the second binding line layer is formed, the excess spare line is cut off and the thread end of the spare line is glued to the second binding line layer. In addition, during the binding process in which the first motor 6 and the second motor 7 are arranged side by side, the controller 23 is used to control the first motor 6 and the second motor 7 to rotate in opposite directions, so that the self-winding forces generated in the same sub-line connected to the hook handles of different fish hooks offset each other, thereby avoiding excessive twisting of the sub-line itself, making the tension value of the sub-line itself at a more ideal level, and effectively improving the tensile strength of the sub-line.

Claims

1. A double-station synchronous high-speed binding machine, characterized in that: It comprises a supporting platform (1), a first clamp (2), a second clamp (3), a first wire outlet device (4), a second wire outlet device (5), a first motor (6), and a second motor (7); A first wire wheel (8) and a second wire wheel (9) are rotatably mounted on the support platform (1); The first wire outlet device (4) is fixedly arranged on the support platform (1) near the first clamp (2), and the second wire outlet device (5) is fixedly arranged on the support platform (1) near the second clamp (3); The first motor (6) is transmission-connected to the first clamp (2) via a first transmission shaft (10), and the second motor (7) is transmission-connected to the second clamp (3) via a second transmission shaft (11); A first winding component (12) is fixedly arranged on the first clamp (2), and a second winding component (13) is fixedly arranged on the second clamp (3); The positional relationship between the first motor (6) and the second motor (7) is: A first motor (6) and a second motor (7) are fixedly mounted side by side on the support platform (1), and a reversing component (14) is arranged on an axial extension line of a line connecting the first motor (6) and the second motor (7). or The first motor (6) and the second motor (7) are installed opposite to each other.

2. The double-station synchronous high-speed binding machine according to claim 1, characterized in that: It also includes a wire arrangement slide (15) slidably arranged on the support platform (1), and a reciprocating motion device for driving the wire arrangement slide (15) to perform reciprocating motion; a first wire wheel (8), a second wire wheel (9), a first wire outlet device (4) and a second wire outlet device (5) are fixedly arranged on the wire arrangement slide (15).

3. The double-station synchronous high-speed binding machine according to claim 2, characterized in that: The reciprocating motion device comprises a third motor (16) and a lead screw (17); The lead screw (17) is fixedly arranged on the support platform (1), and the third motor (16) is connected to an end of the lead screw (17) away from the first motor (6); A third sliding block (18) is sleeved on the lead screw (17), and the cable arrangement slide (15) and the third sliding block (18) are detachably connected.

4. The double-station synchronous high-speed binding machine according to claim 3, characterized in that: A length adjustment shaft (19) arranged along the axial extension line is also fixedly mounted on the support platform (1); The length adjustment shaft (19) comprises a T-shaped optical axis support (20) and a cross fixing clamp (21), the reversing component (14) is mounted on the cross fixing clamp (21), and the cross fixing clamp (21) is connected to the T-shaped optical axis support (20) via a locking screw (22).

5. The double-station synchronous high-speed binding machine according to claim 4, characterized in that: A controller (23) is provided on the support platform (1) and is used to control the first motor (6), the second motor (7), and the third motor (16).

6. The double-station synchronous high-speed binding machine according to any one of claims 1 to 5, characterized in that: The first clamp (2) comprises a first clamp (24) and a second clamp (25) which are detachably pressed together, and the second clamp (3) comprises a third clamp (26) and a fourth clamp (27) which are detachably pressed together; The first motor (6) is transmission-connected to the first clamp (24) via the first transmission shaft (10), and the second motor (7) is transmission-connected to the third clamp (26) via the second transmission shaft (11); The first clamping piece (24) is provided with a first sliding groove (28), and a first sliding block (29) is slidably arranged in the first sliding groove (28); the third clamping piece (26) is provided with a second sliding groove (30), and a second sliding block (31) is slidably arranged in the second sliding groove (30); The first clamping piece (24) is provided with a first protrusion (32), and the second clamping piece (25) is provided with a first groove (33), and the position and size of the first protrusion (32) and the first groove (33) are matched; The third clamping piece (26) is provided with a second protrusion (34), and the fourth clamping piece (27) is provided with a second groove (35), and the position and size of the second protrusion (34) and the second groove (35) are matched.

7. The double-station synchronous high-speed binding machine according to claim 6, characterized in that: A first limiting hole (36) with an internal thread is formed in the middle of the first clamp (24); a second limiting hole (37) corresponding to the position of the first limiting hole (36) and having a size larger than the first limiting hole (36) is formed in the second clamp (25); a threaded handle penetrating both the first limiting hole (36) and the second limiting hole (37) is detachably mounted in the first limiting hole (36); A third limiting hole (38) with an internal thread is formed in the middle of the third clamping piece (26); a fourth limiting hole (39) corresponding to the position of the third limiting hole (38) and having a size larger than the third limiting hole (38) is formed in the fourth clamping piece (27); a threaded handle which passes through both the third limiting hole (38) and the fourth limiting hole (39) is detachably mounted in the third limiting hole (38).

8. The double-station synchronous high-speed binding machine according to claim 7, characterized in that: A first slot (40) for the sub-wire to pass through is provided at one end of the first clamp (2) away from the first motor (6), and a second slot (41) for the sub-wire to pass through is provided at one end of the second clamp (3) away from the second motor (7).

9. The double-station synchronous high-speed binding machine according to claim 8, characterized in that: The shapes of the first groove (40) and the second groove (41) are both "Γ" shapes, the shapes of the notch of the first groove (40) and the notch of the second groove (41) both correspond to the upper part of the "Γ" shape, and the structure of the first groove (40) away from the notch direction and the structure of the second groove (41) away from the notch direction correspond to the lower part of the "Γ" shape.

10. The double-station synchronous high-speed binding machine according to claim 1, characterized in that: When the first motor (6) and the second motor (7) are installed relative to each other, the first motor (6) and the second motor (7) further comprise a first slide (42) and a second slide (43); the first motor (6) is fixedly connected to the first slide (42), and the second motor (7) is fixedly connected to the second slide (43).

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