TWI584727B - Float rope for fishing net - Google Patents

Description

Fishing gear float rope

The present invention relates to fishing gear, and more particularly to a fishing gear float rope.

In general, the fishing net device is provided with a net rope and a lower net mesh for the upper edge mesh and the lower edge mesh of the fishing net mesh, and a floating ball (or a float) is attached at an appropriate interval of the net rope. ), the lower net rope is tied with a plumb bob, a weight body (or a sinker), so that the net net device can be opened in the water evenly and vertically due to the buoyancy of the net rope and the weight of the net rope. The fishing net. However, such a conventional fishing net device for attaching a floating ball (or a float), a plumb bob, a weight body (or a sinking body) to a net rope and a lower net rope of a fishing net by a fixed line by an artificial tie method, respectively. Often caused by the loosening and tightness of the artificial force, causing the attached float (or float), plumb bob, weight body (or sinker) or slack and not close to cause a protrusion It is easy to entangle with the fishing net, narrowing the overall opening of the fishing net in the water, and because of the protruding parts of the plumb bob, the counterweight (or sinker) and the float (or float), it will be closed when the net is closed. The fishing net is entangled or pulled, causing the fishing net to break.

The domestic new patent publication No. M256071 discloses a "fishing net improved structure", which mainly comprises a net body, a buoyancy rope set and a weight rope set, the float The force rope group is coupled to a plurality of upper edge nets of the net body, and the weight rope set is coupled to a plurality of lower edge nets of the net body, and the weight rope set comprises a net rope and a braided net rope. A plurality of weight systems are wrapped in the woven mesh rope in a spaced section, and the woven mesh cord is fastened to the net rope between the two adjacent weight bodies to avoid the weight rope set in the fishing net Improper hooking when opening or closing the net. The buoyancy rope set has a first net rope and a second net rope, and the first net rope passes through the upper edge nets of the net body to be coupled to the upper edge of the net body. A plurality of float balls are exposed to the second net rope in an exposed manner. However, the floating ball is still exposed, which is not easy to operate in the case of netting and unpacking, and its manufacturing is complicated, so that labor and manufacturing costs are increased.

In a known fishing gear float rope, a plurality of floats are wrapped in a woven mesh rope. The current method is manually inserted into the float one by one, which is time consuming and difficult to control the spacing of the floats. In order to facilitate the insertion of the float, the two ends of the float are converged. When the fishing gear is used, both ends of the float are easily exposed and the structure of the net rope is broken.

In a known automatic manufacturing method of a fishing gear float rope, a special float rope knitting device is used, and a plurality of floats are sequentially input into a center of a net rope in a reversely twisted downward knitting, so that the braided rope bag is wrapped. Covering the float, this method needs to control the input time and the weaving speed, so it is not easy to control the spacing of the float, and the setting cost of the special equipment is high and the application range is narrow.

In order to solve the above problems, the main object of the present invention is to provide a fishing gear float rope, which can be quickly joined into a module serial core by a simple action of a quick connector. Among the circular knitting machines The heart line is further wrapped into a fishing gear float rope to achieve automatic production of the float at the same time during the formation of the braided coated rope.

A second object of the present invention is to provide a fishing gear float rope, so that a plurality of floats can be automatically wrapped in the float rope at equal intervals, and a general circular knitting machine can be used to make the fishing gear float rope, and the spacing between the floats can be Adjustment and control according to the selected module fastener, and no special float rope weaving equipment is required.

The object of the present invention and solving the technical problems thereof are achieved by the following technical solutions. The invention discloses a fishing gear float rope comprising a module serial core and a braided covered rope. The module is connected in series with a plurality of floats, each float has a body, and a neck and an end are integrally connected at both ends of the body, wherein the neck is radially cut. It is smaller than the radial cutting dimension of the body and is also smaller than the radial cutting dimension of the end. The braided coated cord is wrapped with the module string core in a staggered manner.

The object of the present invention and solving the technical problems thereof can be further achieved by the following technical measures.

In the above fishing gear float rope, the module serial core preferably further comprises a plurality of module fasteners, each of the module fasteners having a bendable wire body and a plurality of connecting to the twistable wire The hollowed out button body at both ends of the line body accommodates the end portions, and the hollowed out buckle systems are specifically away from a center point of the corresponding module fastener and have a U-shaped notch buckle groove for fastening These necks. Thereby, the equidistant series connection of the floats is achieved.

In the aforementioned fishing gear float rope, the hollowing buckle systems are specifically half The cover type, and the U-shaped notch groove has elastic buckle points on both sides of the opening, so the U-shaped notch groove can easily buckle the corresponding neck.

In the aforementioned fishing gear float rope, the shape of the end portion may be a spherical body, so that the rotation of the floats does not cause the end portion to be dislodged by the correspondingly fastened hollow button body.

In the aforementioned fishing gear float rope, the radial cutting dimension of the end portion is specifically smaller than the radial cutting dimension of the body, so that the radial cutting dimension of the hollowed out button body is not protruding beyond the diameter of the body. Cut the size. Therefore, the end portion is not easily released by the hollowed out button body.

In the fishing gear float rope, the side surface of the hollowed out button body is preferably a half cut and a beveled edge inclined toward the opening of the U-shaped notch groove to reinforce the buckle of the U-shaped notch groove to the neck. Strength.

In the aforementioned fishing gear float rope, the modular tandem core system may further comprise a series of wires, and the sewn joints connect the floats, so that the floats are connected at low cost and equidistant.

In the aforementioned fishing gear float rope, the lanyard can be sewn to the ends of the ends of the floats facing the same series direction, so that the floats can be quickly reached at a low cost equidistant series.

In the aforementioned fishing gear float rope, the shapes of the bodies may be cylindrical, so the floats may have a volume that can achieve a better float, and the rotation of the floats does not cause damage to the braided rope.

In the aforementioned fishing gear float rope, the shapes of the bodies may be rugby bodies, so the floats are more advantageous for the wrapping of the woven covered rope.

By the above technical means, the invention combines the simple combination of the module serial connection core and the simple action of the quick connection head mode, and the float and the module fastener can be quickly joined into a module serial connection core as a The center line of the circular knitting machine is further wrapped into a fishing gear float rope to achieve automatic production of the float at the same time during the formation of the braided coated rope. Moreover, the effect that a plurality of floats can be automatically wrapped in the float rope at equal intervals can be achieved.

D1‧‧‧ radial section size of the body

D2‧‧‧ radial section size of the neck

D3‧‧‧ radial section size of the end

10‧‧‧fishnet

11‧‧‧Network cable

12‧‧‧Internet rope

12A‧‧‧Internet rope sewing

13‧‧‧Under the rope

13A‧‧‧Internet rope sewing

20‧‧‧ fishing gear sinker rope

100‧‧‧ Fishing gear float rope

110‧‧‧Modular series core

120‧‧‧woven covered rope

130‧‧‧Float

131‧‧‧Ontology

132‧‧‧ neck

133‧‧‧End

140‧‧‧Modular fasteners

141‧‧‧Flexible line body

142‧‧‧Knockout button body

143‧‧‧U-shaped notch buckle groove

144‧‧‧deduction points

145‧‧‧Bevel

200‧‧‧ fishing gear float rope

230‧‧‧Float

231‧‧‧ body

310‧‧‧Modular series core

311‧‧‧ line

312‧‧‧Sewing joints

333‧‧‧End

410‧‧‧Modular series core

411‧‧‧ line

412‧‧‧Sewing joints

430‧‧‧Float

433‧‧‧End

434‧‧‧Converging curved surface

510‧‧‧Modular series core

511‧‧‧ line

512‧‧‧Sewing joints

530‧‧‧Float

533‧‧‧End

534‧‧‧Converging cone

600‧‧‧ fishing gear float rope

610‧‧‧Modular series core

630‧‧‧Float

631‧‧‧ body chain unit

Figure 1 is a partial perspective view of a fishing gear float rope in accordance with a first embodiment of the present invention.

Fig. 2 is a partial perspective view showing the module core of the fishing gear float rope according to the first embodiment of the present invention.

3A to 3C are schematic, side and front perspective views of the float of the fishing gear float rope according to the first embodiment of the present invention.

4A to 4C are a perspective view, a side view and a front view of the module fastener of the fishing gear float rope according to the first embodiment of the present invention.

Figure 5: A schematic view of the fishing gear float rope combined in a fishing net in accordance with a first embodiment of the present invention.

Figure 6 is a partial perspective view of a fishing gear float rope in accordance with a second embodiment of the present invention.

Figure 7 is a partial perspective view showing the module core of the fishing gear float rope according to the second embodiment of the present invention.

8A to 8C are a perspective view, a side view and a front view of the float of the fishing gear float rope according to the second embodiment of the present invention.

Figure 9 is a partial perspective view of a modular string core of another fishing gear float rope according to a third embodiment of the present invention.

Fig. 10 is a partial perspective view showing the module core of another fishing gear float rope according to a fourth embodiment of the present invention.

Figure 11 is a partial perspective view of a modular core of a fishing gear float rope according to a fifth embodiment of the present invention.

Fig. 12 is a partial perspective view showing another embodiment of the fishing gear float rope in the axial direction of the woven braided rope according to the sixth embodiment of the present invention.

The embodiments of the present invention will be described in detail below with reference to the accompanying drawings in which FIG. The components and combinations related to this case, the components shown in the figure are not drawn in proportion to the actual number, shape and size of the actual implementation. Some size ratios are proportional to other related sizes or have been exaggerated or simplified to provide clearer description of. The actual number, shape and size ratio of the implementation is an optional design, and the detailed component layout may be more complicated.

According to a first embodiment of the present invention, a fishing gear float rope 100 is illustrated in a partial perspective view of Fig. 1. A fishing gear float rope 100 includes a module serial core 110 and a braided rope 120. The braided cover rope 120 is wrapped with the module serial core 110 in a staggered manner. The module serial connection core 110 is exemplified A partial perspective view of Fig. 2 is shown.

As shown in FIG. 2, the module serial core 110 is connected in series with a plurality of floats 130. 3A, 3B and 3C are respectively a perspective view, a side view and a front view of a float 130. Each of the floats 130 has a body 131, and a neck portion 132 and an end portion 133 are integrally connected to both ends of the body 130. The radial cutting dimension D2 of the neck portion 132 is smaller than the radial cutting dimension D1 of the body 131 and is also smaller than the radial cutting dimension D3 of the end portion 133 (as shown in FIG. 3C), using different diameters. The cut size is used to reduce the sliding of the floats 130 in the braided cover rope 120. The term "axial" refers to the direction between the ends 133 of the same float 130, and "radial" refers to the direction or plane perpendicular to the "axial direction". The term "radial section size" as used herein is the maximum dimension obtained by cutting a product perpendicular to the axial direction, and the "radial section size" of each portion of the float 130 is the float axis of the 3C figure. Observed in the forward view. In addition, the module serial core 110 is a twistable tandem object for winding and storage. The length of the module serial core 110 is arbitrarily adjustable to meet the different lengths of the fishing gear float rope. The material density of the float 130 may be a foam smaller than water or sea water to float above the water surface. The unit length of the body 131 can be greater than the unit length of the neck 132 and the unit length of the end 133. Further, as shown in FIGS. 3A and 3B, the shapes of the bodies 131 are cylindrical, so the floats 130 can have a volume that can achieve a better float, and the rotation of the floats 130 does not cause the woven bag. Damage to the covered rope 120.

Further, as shown in Fig. 1, the braided covered cord 120 can cover the floats 130 at equal intervals. The material of the braided covering rope 120 can be waterproof plastic and can be It is made by weaving multiple strands of circular knitting machine. The manner in which the braided covering rope 120 covers the module serially connected core 110 is a staggered weaving. The so-called "staggered weaving" is that the modular tandem core 110 is first formed in series and formed as a weaving package. The core wire of the covering rope 120 is interlaced and woven around the periphery of the module stringing core 110 to form the braided covering rope 120. Therefore, a good coating effect and automatic weaving can be obtained for the floats 130. operation. The verb definition of "interlaced wrapping" should not include the operation of forming the braided covering cord 120 and then inserting the module stringing core 110 (or the floats 130).

As shown in FIG. 2, in the embodiment, the module serial core 110 further includes a plurality of module fasteners 140. 4A, 4B, and 4C are respectively a perspective view, a side view and a front view of a module fastener 140. Each of the module fasteners 140 has a bendable wire body 141 and a plurality of wires connected thereto. The hollowed out button body 142 at both ends of the bendable wire body 141 can accommodate the end portions 133. The hollowed out button bodies 142 are relatively far from the center point of the corresponding module fastener 140 and have a U-shaped gap. The groove 143 is buckled to fasten the necks 132, thereby achieving equidistant series connection of the floats 130. The bendable wire body 141 is bent along with the braided cover rope 120 to be bent to effectively maintain the distance between the floats 130. The material of the module fastener 140 can be waterproof plastic. The stretchable strength of the bendable wire body 141 is greater than the braided tensile strength of the braided cover rope 120. The shape of the hollowed out button body 142 may be a shape that just fits and fits the end portions 133, such as a pear shape. The U-shaped notch groove 143 can be smaller than the radial cutting dimension D1 of the body 131 and smaller than the radial cutting dimension D3 of the end portion 133, so the U-shaped notch groove 143 can be Fastened to the neck 132. As shown in FIG. 2, the unit length of the bendable wire body 141 is greater than the unit length of the floats 130, and may be equal to or smaller than the floats 130. The unit length is such that the pitch of the floats 130 equidistantly connected can be controlled.

As shown in FIG. 4A to FIG. 4C , the hollowed out button body 142 is a half cover type, and the U-shaped notch buckle groove 143 has elastically clamped buckle points 144 on both sides of the opening, so the U-shaped notch buckle The slot 143 can be easily snapped into the corresponding neck 132. The two opposing buckle points 144 are smaller than the radial cut diameter of the neck portion 132. The buckle 144 can increase the degree of engagement of the module fastener 140 at the neck 132. The half cover shape of the hollowed out button body 142 helps the module fastener 140 to be coupled and disengaged from the module of the float 130. Preferably, the sides of the hollowed out button body 142 are half-cut and inclined to the opening of the U-shaped notch groove (as shown in FIG. 4B) to reinforce the U-shaped notch groove 143. The fastening strength of the neck 132.

Further, as shown in FIGS. 3A and 3B, preferably, the shape of the end portion 133 is a spherical body, so that the rotation of the floats 130 does not cause the end portion 133 to be removed by the correspondingly fastening the hollowed out button body 142. Out, and the damage to the braided covered cord 120 can be reduced. As shown in FIG. 3C, the radial cutting dimension D3 of the end portion 133 is smaller than the radial cutting dimension D1 of the body 131, so that the radial cutting dimension of the hollowed out button body 142 is not protruding from the The body 131 is radially cut to a dimension D1. Therefore, the end portion 133 is not easily released by the hollowed out button body 142.

Figure 5 is a schematic view of the fishing gear float rope 100 combined in a fishing net, the fishing net 10 comprising a plurality of mesh wires 11 and a net body 12 And the net rope 13 , wherein the net rope 12 is located at the upper edge of the net body, and the lower net rope 13 is located at the lower edge of the net body. The fishing gear float rope 100 is coupled to the net rope 12 by a plurality of net rope sewing portions 12A; a fishing gear sinker rope 20 is coupled to the lower net rope 13 by a plurality of lower net rope sewing portions 13A. When the fishing net 10 is dropped on the sea surface, the net body composed of the net wires 11 will be stretched. When the fishing net 10 is retracted, the fishing gear float rope 100 does not catch the mesh wires 11.

Therefore, the present invention discloses a fishing gear float rope, which can be quickly joined into a mold by the simple combination of the module serial connection core and the quick connection head mode. The string core 110 is assembled as a center line of the circular knitting machine and then wrapped into the fishing gear float rope 100 to achieve automatic production of the floats at the same time during the formation of the braided coated rope. Moreover, the plurality of floats 130 can be automatically wrapped in the fishing gear float rope 100 at equal intervals, and the fishing gear float rope 100 can be made using a general circular knitting machine, and the spacing between the floats 130 can be selected according to the selection. The module fastener 140 is adjusted and controlled, and does not require a dedicated float string weaving device.

According to a second embodiment of the present invention, there is provided a partial perspective view of a fishing gear float rope 200 illustrated in Fig. 6, wherein elements having the same names and functions as those of the first embodiment are represented by the component numbers of the first embodiment. And will not repeat the same structure of its details. A fishing gear float rope 200 includes a module serial core 110 and a braided rope 120. The braided cover rope 120 is wrapped with the module serial core 110 in a staggered manner. The module serial connection core 110 is illustrated in a partial perspective view of FIG.

As shown in FIG. 7, the module serial core 110 is connected in series with a plurality of floats 230. 8A, 8B and 8C are respectively a perspective view, a side view and a front view of a float 130. Each of the floats 230 has a body 231. The neck portion 132 and the one end portion 133 are integrally connected to the two ends of the body 231. The radial cutting dimension D2 of the neck portion 132 is smaller than the radial section of the body 231. The dimension D1 is cut and is also smaller than the radial cut dimension D3 of the end portion 133 (as shown in Fig. 8C). The material density of the float 230 may be a foam smaller than water or seawater to float above the water surface. As shown in FIGS. 8A and 8B, the shapes of the bodies 231 can be rugby bodies, so the floats 230 are more advantageous for the wrapping of the woven covering ropes 120.

As shown in FIG. 7, in the embodiment, the module serial connector 110 preferably further includes a plurality of module fasteners 140, each of the module fasteners 140 having a bendable line. The body 141 and a plurality of hollowed out buckles 142 connected to the ends of the bendable wire body 141 to accommodate the end portions 133, the hollowed out button bodies 142 are specifically relatively far away from the corresponding module fasteners The center point of 140 has a U-shaped notch groove 143 to fasten the necks 132. Thereby, the equidistant series connection of the floats 230 is achieved.

Preferably, the shape of the end portion 133 can be a spherical body, so the rotation of the floats 230 does not cause the end portion 133 to be dislodged by the correspondingly fastened hollow button body 142. In addition, the radial cutting dimension D3 of the end portion 133 is specifically smaller than the radial cutting dimension D1 of the body 231, so that the radial cutting dimension of the hollowed out button body 142 is not protruding from the body 131. Cut the dimension D1 radially. Therefore, the end portion 133 is not easily released by the hollowed out button body 142.

According to a third embodiment of the present invention, a fishing gear float rope is provided For example, a partial perspective view of the module serial connection core of FIG. 9 is illustrated, wherein elements having the same names and functions as those of the first embodiment are denoted by the component numbers of the first embodiment, and the details of the details are omitted. . A fishing gear float rope system comprises a module serial core 310 and a braided covered rope. As in the first embodiment, the braided coated cord wraps the module string core 310 in a staggered manner.

As shown in FIG. 9, the module serial connection core 310 is connected in series with a plurality of floats 130, each of the floats 130 has a body 131, and a neck 132 is integrally connected to both ends of the body 131. And the one end portion 333, wherein the neck portion 132 has a radial cutting dimension smaller than the radial cutting dimension of the body 131 and also smaller than the radial cutting dimension of the end portion 333. The shape of the end portion 333 can be a cylinder having a length smaller than the body 131.

As shown in FIG. 9, in the embodiment, the module serial connection core 310 further includes a tether 311, and the sewn joints are connected to the floats 130, so that the floats 130 are connected at low cost and equidistant. . The material of the tether 311 can be a synthetic fiber such as a nylon thread.

As shown in FIG. 9, the line 311 is sewably coupled to the end portions 333 of the end portions 333 of the floats 130 in the same series direction, thereby quickly achieving the low cost of the floats 130. Isometric series. The line 311 is a seam joint 312 where the seam is joined to the floats 130. In a variant embodiment, the floats 130 may be replaced by a double-tapered float, and the tethers are directly sewn to the body of the float.

According to a fourth embodiment of the present invention, a fishing gear float rope is provided For example, a partial perspective view of the module serial connector in FIG. 10 is illustrated, wherein the components having the same names and functions as those of the first embodiment are denoted by the component numbers of the first embodiment, and the details of the details are omitted. . A fishing gear float rope system comprises a module serial core 410 and a braided covered rope. As in the first embodiment, the braided coated cord wraps the module stringing core 410 in a staggered manner.

As shown in FIG. 10, the module serial connection core 410 is connected in series with a plurality of floats 430. Each float 430 has a body 131. One end portion 433 is integrally connected to both ends of the body 131. The radial cut dimension of the end portion 433 is smaller than the radial cut dimension of the body 131. The shape of the end portion 433 can be a cylinder having a length and a diameter smaller than the body 131. In this embodiment, the module serial core 410 further includes a tether 411 that is sewn to join the ends 433 of the floats 430 such that the floats 430 are connected at low cost and equidistant. The line 411 is a seam joint 412 where the seam is joined to the floats 430.

Preferably, the body 131 and the end 433 are formed as a convergent arc surface 434, which facilitates the braided covering rope to cover the floats 430 and enlarge the volume of the floats 430.

According to a fifth embodiment of the present invention, a fishing gear float rope is illustrated as a partial perspective view of the module serial connection core of FIG. 11 , wherein the components corresponding to the same names and functions of the first embodiment are according to the first embodiment. The component number of the component is indicated, and the same structure of the detail is not described again. A fishing gear float rope system comprises a module serial core 510 and a braided covering rope. As in the first embodiment, the braided coated cord wraps the module stringing core 510 in a staggered manner.

As shown in FIG. 11 , the module serial connection core 510 is equidistantly connected in series with a plurality of floats 530 . Each float 530 has a body 131 , and one end portion 533 is integrally connected to both ends of the body 131 . The radial cut dimension of the end portion 533 is smaller than the radial cut dimension of the body 131. The shape of the end portion 533 can be a cylinder having a length and a diameter smaller than the body 131. In this embodiment, the module stringing core 510 further includes a tether 511 that is sewn to join the ends 533 of the floats 530 such that the floats 530 are connected at low cost and equidistant. The line 511 is a seam joint 512 where the slats are joined to the floats 530.

Preferably, the body 131 and the end 533 are formed as a converging cone 534, which facilitates the braided covering rope to cover the float 530, and can reduce the body 131 of the float 530 to the woven bag. Damage and offset of the covered rope.

According to a sixth embodiment of the present invention, a fishing gear float rope 600 is illustrated in a partial perspective view of Fig. 12, wherein elements having the same names and functions as those of the first embodiment are represented by the component numbers of the first embodiment. And will not repeat the same structure of its details. A fishing gear float rope 600 includes a module serial core 610 and a braided rope 120. The braided cover rope 120 covers the module serial core 610 in a staggered manner.

As shown in FIG. 12, the module serial core 610 is connected in series with a plurality of floats 630. Each of the floats 630 has a body, and a neck portion 132 and an end portion 133 are connected to both ends of the body 631. In this embodiment, the system of at least one of the floats 630 is a buoyant chain formed by a plurality of body chain units 631 connected in series to increase the strong buoyancy section of the fishing gear float rope 600. Wherein the diameter of the neck 132 The cut-away dimension is smaller than the radial cut-away dimension of the body chain unit 631 of the body and is also smaller than the radial cut-away dimension of the end 133. The tandem relationship between the adjacent main body chain units 631 and the most side main body chain unit 631 to the adjacent end portions 133 may be an integral connection, a formed wire bond, a center line after forming, and a center line built during forming. Molded, hooked or looped.

As shown in FIG. 12, in the embodiment, the module serial connector 610 preferably further includes a plurality of module fasteners 140, each of the module fasteners 140 having a bendable line. The body 141 and a plurality of hollowed out buckles 142 connected to the ends of the bendable wire body 141 to accommodate the end portions 133, the hollowed out button bodies 142 are specifically relatively far away from the corresponding module fasteners The center point of 140 has a U-shaped notch groove 143 to fasten the necks 132. Thereby, the equidistant series connection of the floats 630 is achieved. The hollowed out button bodies 142 can be in the shape of a teardrop to achieve a better receiving effect on the end portions 133. The length of the bendable wire body 141 is preferably greater than the gap between adjacent body chain units 631 to provide a weak buoyancy section of the fishing gear float rope 600.

The above is only the preferred embodiment of the present invention, and the scope of the present invention is not limited thereto, and thus equivalent changes made in the claims of the present invention are still within the scope of the present invention.

110‧‧‧Modular series core

130‧‧‧Float

131‧‧‧Ontology

132‧‧‧ neck

133‧‧‧End

140‧‧‧Modular fasteners

141‧‧‧Flexible line body

142‧‧‧Knockout button body

143‧‧‧U-shaped notch buckle groove

144‧‧‧deduction points

Claims (10)

The utility model relates to a fishing gear float rope, comprising: a module serially connected core, which is equidistantly connected in series with a plurality of floats, each float body having a body, and a neck portion and an end portion are integrally connected at both ends of the body, wherein The radial cutting dimension of the neck is smaller than the radial cutting dimension of the body and is also smaller than the radial cutting dimension of the end; and a braided covering rope is wrapped in the pattern of the module in a staggered manner The core of the module further includes a plurality of module fasteners, each of the module fasteners has a bendable line body and a plurality of hollowed out connected to the ends of the bendable line body a button body for accommodating the end portions, the hollowing buckle system is relatively far from a center point of the corresponding module fastener and has a U-shaped notch buckle groove to fasten the neck portions; The air buckle system is a half cover type, and the U-shaped notch groove has elastic buckle points on both sides of the opening. The fishing gear float rope according to claim 1, wherein the end portion is in the shape of a sphere. The fishing gear float rope according to claim 2, wherein the radial cutting dimension of the end portion is smaller than the radial cutting dimension of the body, so that the radial cutting dimension of the hollowed out button body is not Prominent in the radial cut size of the body. The fishing gear float rope according to claim 1, wherein the side surface of the hollowed out button body is a beveled edge that is half-cut and inclined toward the opening of the U-shaped notch groove. The fishing gear float rope according to any one of claims 1 to 4, wherein the bodies are in the shape of a cylinder. The fishing gear float rope according to any one of claims 1 to 4, wherein The shapes of the bodies are rugby bodies. A fishing gear float rope comprising: a modular tandem core, a plurality of floats equidistantly connected in series, each float having a body, the neck of which is connected to one end and one end, wherein the neck The radial cutting dimension of the portion is smaller than the radial cutting dimension of the body and is also smaller than the radial cutting dimension of the end portion, wherein the module serial core system further comprises a plurality of module fasteners, each of which The module fastener has a twistable wire body and a plurality of hollowed out buttons connected to the two ends of the bendable wire body to accommodate the end portions, and the hollowed out buckle systems are relatively far away from the corresponding module. The center point of the fastener has a U-shaped notch groove to fasten the neck portions; and a braided covering rope is used to wrap the module stringing core in a staggered manner. The fishing gear float rope according to claim 7, wherein the hollowed out buckle system is in the shape of a teardrop. The fishing gear float rope according to claim 7 or 8, wherein at least one of the float systems is a buoyant chain formed by a plurality of body chain units connected in series. The fishing gear float rope according to claim 9, wherein the length of the bendable wire body is greater than a gap between adjacent body chain units.