JP2024127173A - Fishing equipment for attaching a captured object and fishing tackle - Google Patents

Abstract

To provide a fishing catch attachment and a fishing tackle capable of improving catches by restricting the movement of a hook.
[Solution] The fishing device is configured to be able to attach a fishing target 2 that captures the fishing target organism, and comprises a front end 7 arranged at the front side in the fore-and-aft direction, an attachment section arranged at the rear side of the front end 7 and able to attach the fishing target 7, and a support section 9 extending rearward from the front end 7 and including a second fishhook attachment section 21 for attaching a second fishhook 29 for fishing the organism, and a regulating section 11 is provided in the surrounding area of the second fishhook attachment section 21 on the support section 9, at least in the area between the second fishhook attachment section 21 and the fishing target 2 attached to the attachment section, for regulating the movement of the second fishhook 29 towards the fishing target 2.
[Selected figure] Figure 2

Description

The present invention relates to a fishing catch attachment and a fishing tackle.

Patent Document 1 discloses a vibration jig head. This vibration jig head is equipped with a sinker (weight) with a tapered tip, a front keeper protruding from the end face of the rear end of the sinker, a rear keeper standing upward from a linear member extending rearward from the sinker, a front ring attached to the bottom of the sinker and for attaching a front hook, and a rear ring attached to the bottom of the rear keeper and for attaching a rear hook.

By attaching a lure to the front and rear keepers of this vibration jig head and moving it through the water, fish that have eaten the lure can be caught by hooking it on the front or rear hook.

Utility Model Registration No. 3220141

However, with this vibration jig head, the front hook or rear hook is simply suspended from the front and rear rings, so the front hook or rear hook can move along the ring shape of the front and rear rings toward the lure and become stuck in the lure. If the hook remains stuck in the lure, it will affect the movement of the lure in the water and the hook's ability to hook the fish, which will have a negative impact on the catch.

This problem is not limited to when artificial bait is attached to a vibration jig head, but can occur with any object that is caught with the belief that the target fish will eat it, such as when live bait is attached.

The present invention aims to provide a fishing catch attachment device and fishing tackle that can improve catches by restricting the movement of the hook.

The present invention is configured to allow attachment of a fishing target object for catching a fishing target creature,
This fishing target attachment device comprises a front end portion located at the front side in the fore-and-aft direction, an attachment portion located at the rear side of the front end portion and capable of attaching the fishing target, and a support portion extending rearward from the front end portion and including a hook attachment portion for attaching a fishing hook for catching the living creature, and a regulating portion is provided in at least the area between the hook attachment portion and the fishing target attached to the attachment portion, in the surrounding portion of the hook attachment portion on the support portion, for regulating the movement of the fishhook toward the fishing target.

According to the above configuration, since the restricting part is provided, it is possible to restrict the fishhook attached to the hook attachment part from moving beyond the support part toward the fishing target, and to prevent the fishhook from piercing the fishing target. This can increase the catch.

The present invention may be configured such that the width dimension of the restricting portion in a width direction perpendicular to the front-rear direction is greater than the width dimension of the supporting portion in the width direction.

The above configuration allows the movement of the fishing hook in the width direction to be restricted, and the large width of the restricting portion can be used to stably support the fishing target.

In the present invention, the regulating portion may include a space between the hook attachment portion and the fishing target, extending rearward from the hook attachment portion, and a front-rear portion that is located closer to the hook attachment portion than the space and is located in front of or behind the hook attachment portion.

With the above configuration, the intermediate section and the front and rear sections can suppress movement of the fishing hook toward the target object.

The present invention is a fishing tackle comprising the fishing target attachment device configured as described above and the fishing target to be attached to the fishing target attachment device.

According to the present invention, the fishing object attachment device and fishing tackle are provided with a restricting section, which can prevent the fishing hook from piercing the fishing object, thereby increasing the catch.

FIG. 1 is a centerline cross-sectional view of a lure showing one embodiment of the present invention. FIG. FIG. FIG. 2 is an enlarged view of the second fishing hook attachment portion in FIG. 1 (enlarged view of V in FIG. 1). FIG. 3 is a left side view in FIG. 2 . 3 is a right side view in FIG. 2. 6 is a cross-sectional view taken along line VIII-VIII in FIG. 5 . FIG. 11 is a perspective view showing a rotated state of the second insertion portion.

A lure according to one embodiment of the present invention will be described with reference to Figures 1 to 9. In this embodiment, as shown in Figure 1, the lure 1 is composed of a worm 2 and a worm attachment 3, and the lure 1 moves through the water while being pulled by a line operated by an angler (not shown), and is used as a fishing tackle (fishing gear) for catching fish or the like.

The worm 2 is an artificial bait without a fishing hook attached, and is a component that constitutes a fishing target (a living creature to be fished for) such as a fish. Therefore, the worm attachment tool 3 is also called a fishing target attachment tool, and in this embodiment, the fishing target is the worm 2. However, live bait can also be used instead of the worm 2.

The worm 2 is a component selected according to the form of the worm attachment 3, and therefore the shape of the worm 2 is not specific, but in this embodiment, the worm 2 has a body portion 2A and a tail portion 2B. The body portion 2A and the tail portion 2B of the worm 2 are formed to resemble a fish, and the worm 2 as a whole is made of a synthetic resin such as polyvinyl chloride or elastomer.

As shown in the figure, the body 2A is formed with a constant length in the front-to-rear direction, and has a body outer surface 2a and a body bottom surface 2b. The body outer surface 2a is formed in a substantially semicircular shape that runs along the front-to-rear direction and points upward. The body bottom surface 2b is formed in a substantially planar shape running along the front-to-rear direction, and therefore the cross section of the body 2A in the vertical direction is formed in a substantially semicircular cross-sectional shape. In addition, the front surface 2C, which is the front end surface of the body 2A, is formed in a substantially planar shape running along the vertical direction.

The tail 2B is integrated with the body 2A so as to extend rearward, and has a tail body 4 and a tail fin 5. The tail body 4 has a tail outer surface 4a and a tail bottom surface 4b. The tail body 4 is formed to a constant length toward the rear of the body 2A, and the cross section of the tail body 4 in the vertical direction is formed to be approximately semicircular like the body 2A, while the cross section of the tail body 4 tapers toward the rear, with the bottom surface 2b of the body and the bottom surface 4b of the tail forming a common plane. The tail fin 5 is formed on the rear end side of the tail body 4. The cross section of the tail fin 5 is enlarged in the vertical and horizontal directions compared to the tapered cross section of the tail body 4.

The worm 2 has a partition line region 6 that separates the body portion 2A from the tail portion 2B, and the partition line region 6 is a linear band that runs from the outer periphery of the worm 2 to the inside. By forming such a tail fin 5 and partition line region 6, the tail main body 4 and the body portion 2A are configured to meander in water due to the movement of the tail fin 5.

Next, the worm attachment tool 3 will be described. As shown in Figures 2 to 4, the worm attachment tool 3 is configured to be able to attach the worm 2, and includes a front end 7, a first insertion portion 8, a support portion 9, a second insertion portion 10, and a restricting portion 11.

[Regarding the front end]
The front end 7 is formed on the front side of the worm attachment tool 3 in the front-rear direction. The front end 7 includes a front end body 7A, which is a sinker (weight) formed to resemble a fish head, and a line attachment part 12. The front end body 7A is formed of metal, for example, lead. The front end body 7A is formed to taper toward the tip side, and the rear surface 7a of the front end body 7A is formed in a substantially flat shape in the up-down direction so as to correspond to the front surface 2C of the body part 2A.

The upper part of the front end body 7A is provided with a line attachment section 12 for fastening, for example, a line (not shown) leading out from a reel. The line attachment section 12 is a semi-annular member provided on the top surface of the front end body 7A, and both side ends are connected in the front-rear direction of the top surface.

The first insertion portion 8 protrudes rearward from the rear surface 7a of the front end body 7A and is configured to be insertable into the worm 2. Specifically, the first insertion portion 8 is composed of a first insertion portion body 13 and a rotation prevention member 14. Of these, the first insertion portion body 13 is a member that is inserted from the front into the front surface 2C of the body portion 2A of the worm 2 to position the worm 2. The rotation prevention member 14 is a member that is inserted from the front into the front surface 2C of the body portion 2A and prevents the worm 2 (body portion 2A) from rotating.

The first insertion body 13 and the anti-rotation member 14 are arranged in the widthwise center of the rear surface 7a of the front end body 7A and are arranged to be spaced apart in the vertical direction, with the first insertion body 13 arranged lower than the anti-rotation member 14. The distance dimension of the first insertion body 13 from the rear surface 7a of the front end body 7A to the rear is set to a fixed distance dimension, that is, a position where it is inserted into the lower side of the front surface 2C of the body part 2A (the side of the body bottom surface 2b). This fixed distance dimension is also the distance from the upper surface 15A of the support body 15, as described later. The anti-rotation member 14 is also set to a position where it is inserted into the upper side of the front surface 2C of the body part 2A.

As shown in FIG. 1, the first insertion body 13 and the anti-rotation member 14 are formed in a U-shape inside the front end body 7A based on a core member 16 that protrudes parallel to each other rearward from the rear surface 7a of the front end body 7A. That is, the first insertion body 13 has an outer tube material 17 fitted onto the lower core member 16, and the anti-rotation member 14 has a configuration in which the core member 16 is exposed.

As shown in FIG. 2, the outer tube material 17 of the first insertion portion body 13 has a tube body 18 that fits onto the lower core member 16, a number of insertion pieces 18a on the tube body 18 that are spaced apart from each other in the front-to-rear direction, and a single pointed piece 18b located on the rear end side of the tube body 18.

The multiple insertion pieces 18a and the pointed end piece 18b are formed so that they can be easily inserted into the front 2C side of the body part 2A, but are difficult to remove. That is, the front end surface of the insertion pieces 18a and the pointed end piece 18b is formed as an orthogonal surface perpendicular to the tube body 18, and the rear side of the front end surface is formed as a cone-shaped surface 18c, 18d so that it is inclined toward the tube body 18. Between the rear end of the rotation prevention member 14 and the rear end of the pointed end piece 18b of the first insertion part body 13, the pointed end piece 18b of the first insertion part body 13 is located on the rear side. The lower core member 16 protrudes further rearward from the pointed end piece 18b of the first insertion part body 13. The core member 16, the first insertion part body 13, and the rotation prevention member 14 are made of metal.

[About the support part]
The support portion 9 is provided on the front end body 7A. The support portion 9 is configured to extend rearward from the front end body 7A, and is a member on which the worm 2 is placed. Specifically, as shown in FIG. 1, the support portion 9 is a member on which the body portion 2A of the worm 2 is placed. The support portion 9 is composed of a front region 9A provided forward of the lower end 7b of the front end body 7A, and a rear region 9B extended rearward from the lower end 7b of the front end body 7A. The support portion 9 is formed integrally with the front end body 7A, and is made of metal.

The support portion 9 has a support body 15, a first hook attachment portion 20 provided in the front region 9A of the support body 15, and a second hook attachment portion 21 provided in the rear region 9B of the support body 15.

As shown in FIG. 6, the support body 15 is formed to a predetermined width dimension t in the left-right direction and is formed in a plate shape along the up-down direction. As shown in FIG. 2, the support body 15 has an upper surface 15A, a lower surface 15B facing the upper surface 15A below, side surfaces 15C, 15C on both sides that are continuous with the sides of the upper surface 15A and the lower surface 15B, a front surface 15D, and a rear surface 15E facing the rear of the front surface 15D.

The upper surface 15A, front surface 15D, and lower surface 15B of the front region 9A are formed into a continuous arc-shaped surface. A part of the upper surface 15A and the front surface 15D is located forward of the lower end 7b of the front end body 7A and is formed integrally with the front end body 7A. In the front region 9A, the upper surface 15A, front surface 15D, lower surface 15B, and side surfaces 15C, 15C form a first fishhook attachment portion 20. A first hole 22 is formed in the first fishhook attachment portion 20 (front region 9A) along the width direction.

As shown in FIG. 1, the first hook attachment part 20 holds the front hook (hereinafter referred to as the first hook 23, for example, a triple hook) and, for example, the split ring 30 of the first hook 23 is wound around it. In this way, the first hook attachment part 20 is a part for attaching a hook for catching a fishing target (fish, etc.).

In the rear region 9B, the support body 15 extends rearward from the lower end 7b of the front end body 7A to a range corresponding to the front-rear direction of the body portion 2A of the worm 2.

In the rear region portion 9B, the upper surface 15A of the support body 15 is connected to the lower end 7b of the front end body 7A, and has a smooth surface 24 that runs rearward from the lower end 7b, and an upper inclined surface 25 that slopes downward from the rear end of the smooth surface 24. In the rear region portion 9B, the lower surface 15B of the support body 15 has a curved surface 26 that runs rearward from the lower surface 15B of the front region portion 9A and curves downward, and a lower inclined surface 27 that slopes downward from the rear end of the curved surface 26. In addition, the rear surface 15E of the rear region portion 9B is an arc surface that connects the upper inclined surface 25 and the lower inclined surface 27. The lower surface 15B of the support body 15 forms a curved surface 26 that runs rearward from the lower surface 15B of the front region portion 9A and curves downward, but instead of the curved surface 26, a straight surface can be used. Furthermore, although the upper inclined surface 25 and the lower inclined surface 27 are surfaces that slope downward, they can also be straight surfaces.

In the rear region 9B, the upper inclined surface 25, the lower inclined surface 27, the rear surface 15E, and the side surfaces 15C, 15C form the second hook attachment portion 21. The second hook attachment portion 21 is surrounded by the upper inclined surface 25, the lower inclined surface 27, and the rear surface 15E and has a second hole 28 formed along the width direction.

The second hook attachment part 21 holds the rear hook (hereinafter referred to as the second hook 29, for example, a triple hook) and, for example, the split ring 30 of the second hook 29 is wound around it. The second hook attachment part 21 is a part for attaching a hook for catching an object to be caught (such as a fish), and the support part 9 is equipped with the first hook attachment part 20 and the second hook attachment part 21.

[Regarding the second insertion part]
1 and 2, the second insertion part 10 is disposed rearward of the first insertion part 8 and configured to be insertable into the worm 2. The second insertion part 10 includes an insertion linear body 31 and a positioning part 32. The insertion linear body 31 is a bent linear member, and for example, a wire with a circular cross section is used.

In the rear region portion 9B, the insertion linear body 31 has a base end portion 33 placed in the center of the width direction of the upper surface 15A of the support body 15, a tip curved portion 34 bent from the tip of the base end portion 33, and a rear end curved portion 35 bent from the rear end of the base end portion 33. The base end portion 33, the tip curved portion 34, and the rear end curved portion 35 are integrally formed.

The base end 33 extends in the front-rear direction, is set shorter than the upper surface 15A of the support body 15, and is adjacent to and above the upper surface 15A.

The tip bent portion 34 is bent so as to follow the rear surface 7a of the front end body 7A. The end position of the tip bent portion 34 is set at a position lower than the first insertion portion body 13. In this embodiment, the bending angle of the tip bent portion 34 is set to approximately 90° with respect to the base end portion 33. The tip bent portion 34 can be rotated so as to follow the rear surface 7a of the front end body 7A by rotating the base end portion 33 around its axis 33a (axis line).

The rear end bent portion 35 is a member that is inserted into the body portion 2A of the worm 2. The rear end bent portion 35 has a rising portion 36 that is bent from the base end portion 33, and an insertion piece 37 that is bent from the rising portion 36. The rising portion 36 and the insertion piece 37 are integrally formed. Therefore, the rear end bent portion 35 can be rotated around the upper surface 15A by rotating the base end portion 33 around its axis 33a.

In other words, the second insertion part 10 is supported on the upper surface 15A of the support body 15 so that the base end 33 can rotate freely around the axis 33a, and the tip curved part 34 and the rear curved part 35 integrally formed with the base end 33 can also rotate freely, and can be displaced in a direction intersecting the front-rear direction. The rear curved part 35 is located behind the first insertion part body 13.

In this embodiment, the rising portion 36 is disposed at an obtuse angle from the base end 33 (upper surface 15A). The insert piece 37 is disposed at an obtuse angle from the base end 33 to the rising portion 36 and is formed at the end of the rising portion 36, and the part P where the rising portion 36 and the insert piece 37 are continuous is disposed rearward of the part P1 where the base end 33 and the rising portion 36 are continuous. The front-to-rear tip of the insert piece 37 does not reach the rear end of the core member 16 below the first insertion portion 8, and is the length dimension of the insert piece 37.

The height distance from the base end of the rising portion 36 (corresponding to the portion rising from the base end portion 33) to the tip of the insertion piece 37 is set to a dimension that fits within the body portion 2A of the worm 2 from the upper surface 15A when the body portion 2A is placed on the upper surface 15A (see Figure 1).

The positioning portion 32 is a member that positions the insertion linear body 31 in the front-rear direction, the up-down direction, and the width direction. The positioning portion 32 is heat-shrunk in the rear region portion 9B of the support portion 9, wrapping a part of the lower surface 15B of the support body 15, a part of the side surfaces 15C and 15C, and the base end portion 33 of the insertion linear body 31 placed on the upper surface 15A. This allows the insertion linear body 31 to be positioned in the front-rear direction, the up-down direction, and the width direction. In this case, the positioning portion 32 is heat-shrunk so that the tip curved portion 34 of the insertion linear body 31 abuts against the rear surface 7a of the front end body 7A. In this way, the positioning portion 32 is composed of a heat-shrinkable sleeve-shaped body (tube).

As described above, when the positioning portion 32 is thermally shrunk around the support body 15 and the base end portion 33, the front-rear movement of the base end portion 33 is restricted by the tip bent portion 34 and the rear bent portion 35, and the up-down movement is restricted. In addition, the thermal shrinkage of the positioning portion 32 restricts the widthwise movement of the base end portion 33.

However, since the base end 33 has a circular cross section and the upper surface 15A on which the base end 33 rests is a smooth surface 24, the base end 33 can rotate about its axis 33a. Therefore, when the base end 33 rotates about the axis 33a, the tip curved portion 34 and the rear curved portion 35 can rotate about the axis 33a.

[Regulations Department]
The regulating portion 11 is located in the surrounding area of the second fishhook mounting portion 21 in the support portion 9, at least in the area between the second fishhook mounting portion 21 and the body portion 2A of the worm 2 attached to the rear region portion 9B, and is a member that regulates the movement of the second fishhook 29 toward the worm 2 (tail portion 2B).

The restricting portion 11 is provided to fit over the second hook attachment portion 21, and as shown in Figs. 1 and 2, the restricting portion 11 is disposed between the second hook attachment portion 21 and the rear end portion of the body portion 2A of the worm 2. As shown in Fig. 6, the width dimension t1 of the restricting portion 11 is formed to be larger than the width dimension t of the support portion 9 (the rear end of the support portion 9).

As shown in FIG. 2, the regulating portion 11 has a space 40 that extends rearward from the second hole 28 of the second fishhook attachment portion 21. Furthermore, the regulating portion 11 has front and rear portions 41, 42 that are positioned closer to the second hole 28 of the second fishhook attachment portion 21 than the space 40 and are positioned in front and rear of the second hole 28 of the second fishhook attachment portion 21.

The external shape of the regulating portion 11 will now be described in more detail. The regulating portion 11 has an upper regulating surface 43, a lower regulating surface 44 disposed below the upper regulating surface 43, a front regulating surface 45 on the front end body 7A side, a rear regulating surface 46 disposed rearward of the front regulating surface 45, and side regulating surfaces 47, 47, with the second fishhook attachment portion 21 embedded from the front.

The regulating upper surface 43 has a flush surface 43a that is flush with the upper surface 15A (smooth surface 24) of the support body 15 (support portion 9), and a support surface 43b that is located behind the flush surface 43a and faces rearward from the flush surface 43a. The rear end of the support surface 43b protrudes rearward beyond the rear end of the second hook attachment portion 21. The support surface 43b is a surface that supports the rear side of the bottom surface 2b of the body of the worm 2. Alternatively, the support surface 43b may be formed to be inclined rearward.

The lower regulating surface 44 has four components. That is, the lower regulating front surface 44a is located on the front side, the lower regulating rear surface 44b is located on the rear side, the storage surface 44c is located between the lower regulating front surface 44a and the lower regulating rear surface 44b, and the front regulating surface 44d.

The lower front regulating surface 44a is a surface parallel to the same surface 43a, and is positioned below the lower inclined surface 27 of the second fishing hook attachment portion 21, as shown in FIG. 5.

The regulating lower rear surface 44b is located in the vertical direction of the second fishhook attachment part 21, is positioned above the regulating lower front surface 44a, is parallel to the regulating lower front surface 44a, and is a surface that protrudes rearward from the rear surface 15E of the second fishhook attachment part 21. As shown in FIG. 1, the storage surface 44c is positioned between the regulating lower front surface 44a and the regulating lower rear surface 44b, is formed to avoid the second hole 28, and is formed in a semicircular shape. The regulating lower rear surface 44b can also be a surface that slopes forward. The storage surface 44c does not have to be semicircular in shape, and may have any shape that can avoid the second hole 28.

The lower regulating surface 44 further includes a front regulating surface 44d, which is formed downward from the front of the storage surface 44c and is formed to connect the storage surface 44c and the lower regulating front surface 44a.

5, the drooping surface 40a is formed between the same surface 43a and the support surface 43b and downward from the front side of the support surface 43b. The drooping surface 40a and the lower rear regulating surface 44b are formed as the upper inclined facing surface 40b, which faces the upper inclined surface 25 diagonally upward with a gap between them. The rear side of the upper inclined facing surface 40b is formed as the rear along surface 42a, which is arranged along the rear surface 15E and has a steep inclination. The surface connecting the regulating front surface 45 and the front regulating surface 44d is formed as the lower inclined facing surface 44e, which faces the lower inclined surface 27 diagonally downward with a gap between them. The rear end of the lower inclined facing surface 44e does not reach the rear surface 15E. The second fishhook attachment portion 21 is inserted between the upper inclined facing surface 40b and the lower inclined facing surface 44e. Furthermore, between the hanging surface 40a and the front restriction surface 44d, the hanging surface 40a is located further forward.

In this type of regulating lower surface 44, the storage surface 44c avoids the second hole 28, and the rear of the second hook attachment portion 21 is exposed between the front regulating surface 44d and the lower rear regulating surface 44b, and the space between the front regulating surface 44d and the lower rear regulating surface 44b is open. The lower rear regulating surface 44b is a surface that runs along the horizontal direction, and the front regulating surface 44d is a surface that runs along the vertical direction. In other words, the angle formed by the front regulating surface 44d and the lower rear regulating surface 44b is approximately 90°. Note that, as long as the storage surface 44c has a shape that can avoid the second hole 28, the angle formed by the front regulating surface 44d and the lower rear regulating surface 44b does not need to be approximately 90°.

The restricting front surface 45 is a plane that connects the same surface 43a, the restricting lower front surface 44a, and the restricting side surfaces 47, 47, and is formed to avoid the second fishhook attachment part 21 (support body 15) as shown in FIG. 8. The restricting lower front surface 44a is disposed below the lower inclined surface 27 of the second fishhook attachment part 21, so the restricting front surface 45 is also formed to protrude from the lower inclined surface 27 of the second fishhook attachment part 21. As shown in FIG. 8, the restricting front surface 45 is formed in a U-shape that is open on the upper side. The restricting side surfaces 47, 47 can also be curved or curved surfaces.

As shown in FIG. 7, the restricting rear surface 46 is a plane connecting the support surface 43b, the restricting lower rear surface 44b, and the restricting side surfaces 47, 47, and the rear end of the support surface 43b protrudes rearward from the rear end of the second fishhook attachment part 21, and the restricting rear surface 46 protrudes rearward from the second fishhook attachment part 21 by the amount that the restricting lower surface 44 (front and rear surfaces 42 described below) protrudes rearward from the rear surface 15E of the second fishhook attachment part 21. Note that the restricting rear surface 46 is a plane connecting the support surface 43b, the restricting lower rear surface 44b, and the restricting side surfaces 47, 47, but it may also be a curved or curved surface.

Of these surfaces that make up the regulating portion 11, the lower sides of the support surface 43b, the regulating rear surface 46, the regulating lower rear surface 44b, the regulating lower front surface 44a, and the regulating front surface 45 extend in the width direction across both sides 15C, 15C of the second hook attachment portion 21.

As described above, the regulating portion 11 has a space 40 that extends rearward from the second hole 28 of the second hook attachment portion 21, and the space 40 is formed by the support surface 43b, the regulating rear surface 46, and the regulating side surfaces 47, 47, as shown in FIG. 5.

As described above, the regulating portion 11 is disposed closer to the second hole 28 of the second hook attachment portion 21 than the space 40, and has front and rear portions 41, 42 disposed in front and rear of the second hole 28 of the second hook attachment portion 21, and the front front and rear portion 41 is formed by the regulating front surface 45, the front regulating surface 44d, the regulating lower front surface 44a, and the regulating side surfaces 47, 47. The rear front and rear portion 42 is formed below the space 40. From a manufacturing standpoint, the regulating portion 11 is made of resin.

The lure 1 configured as described above is composed of a worm attachment tool 3 and a separate worm 2, and the angler operates it to attach the worm 2 to the worm attachment tool 3. For example, the worm attachment tool 3 has the top surface 15A of its support body 15 facing up, and the worm 2 has the bottom surface 2b of the body 2A facing down, and the angler aligns the top surface 15A of the support body 15 with the bottom surface 2b of the body 2A in the width direction, and attaches the bottom surface 2b of the body 2A to the top surface 15A of the support body 15.

At that time, the front surface 2C of the body portion 2A is inserted from the rear of the first insertion portion 8 so as to match the rear surface 7a of the front end body 7A from the front-rear direction. However, the worm attachment tool 3 is provided with an insertion linear body 31 of the second insertion portion 10, and when attaching the bottom surface 2b of the body portion 2A to the upper surface 15A of the support body 15, the insertion linear body 31 may get in the way. However, the insertion linear body 31 supported by the positioning portion 32 on the support portion 9 has a base end portion 33 that can rotate freely around the axis 33a. In other words, the insertion linear body 31 can be displaced in a direction that intersects with the front-rear direction, and the rear end curved portion 35 can be rotated around the upper surface 15A by the angler, as shown in FIG. 9, so that the insertion linear body 31 does not get in the way of attaching the worm 2.

However, the base end 33 is surrounded by the positioning portion 32. Therefore, even though the base end 33 rotates around the axis 33a, the angler actually makes the rear end curved portion 35 follow the top surface 15A so that the insertion linear body 31 does not get in the way of attaching the worm 2. In addition, in this embodiment, the angle at which the rear end curved portion 35 follows the top surface 15A is set so that the rear end curved portion 35 follows the top surface 15A, but the angle of the rear end curved portion 35 need only be such that it is easy to attach the worm 2 to the support body 15, and this angle is not specified.

In this way, when the insertion linear body 31 is aligned with the top surface 15A and the front surface 2C side of the body 2A is aligned with the rear surface 7a of the front end body 7A, the first insertion portion 8, which is the first insertion portion body 13 and the anti-rotation member 14, enters from the front surface 2C of the body 2A. This is because the first insertion portion body 13 and the anti-rotation member 14 are made of metal and the body 2A is made of synthetic resin, so the first insertion portion 8 enters the body 2A.

The outer tube material 17 of the first insertion part body 13 has multiple insertion pieces 18a and pointed end pieces 18b spaced apart in the front-rear direction on the tube body 18. The insertion pieces 18a and pointed end pieces 18b are configured to make it easy to insert the front surface 2C of the body part 2A, but difficult to remove. Therefore, once the body part 2A enters the first insertion part body 13, it is difficult to remove.

The anti-rotation member 14 is a linear body, but is spaced apart from the first insertion body 13 in the vertical direction, so it has the function of preventing the body 2A from rotating around the first insertion body 13.

Next, the body portion 2A is held by the second insertion portion 10. To do this, it is necessary to return the insertion linear body 31 of the second insertion portion 10, i.e., to the upper surface 15A of the support body 15. To do this, the insertion linear body 31 can be returned by bending the rear part of the body portion 2A, which is made of synthetic resin, upward and then bending the insertion linear body 31 upward. At this time, the front surface 2C side of the body portion 2A is securely supported by the first insertion portion main body 13, so it is easy to bend the rear part of the body portion 2A upward.

Then, the rear part of the body part 2A is inserted from the insertion piece 37 into the rising part 36, this time by returning it downward. The insertion piece 37 is formed at the end of the rising part 36 and is disposed at an obtuse angle relative to the rising part 36, and the rising part 36 is disposed at an obtuse angle relative to the top surface 15A, but since the rear end curved part 35 (rising part 36, insertion piece 37) is made of metal and the body part 2A is made of resin, the rear end curved part 35 easily enters the body part 2A by pushing the rear part of the body part 2A toward the support part 9. Even if the rear part of the body part 2A to be attached is pressed using the outer body surface 2a of the body part 2A supported by the insertion linear body 31 as a fulcrum, the rear end curved part 35 easily enters the body part 2A.

The portion P where the rising portion 36 and the insertion piece 37 join is located behind the portion P1 where the base end 33 and the rising portion 36 join, and the insertion piece 37 is located at an obtuse angle relative to the rising portion 36, so that by pushing the rear of the body portion 2A towards the support portion 9, the insertion piece 37 can easily enter the body portion 2A.

The distance from the base end of the rising portion 36 to the tip of the insertion piece 37 is set to a dimension that fits within the body portion 2A of the worm 2 from the upper surface 15A when the body portion 2A is placed on the upper surface 15A, so the insertion piece 37 and the rising portion 36 fit within the body portion 2A.

In this way, the worm 2 is attached to the support part 9 (rear area part 9B) of the worm attachment tool 3. The support body 15 in the rear area part 9B of the support part 9 extends rearward from the lower end 7b side of the front end body 7A to a range corresponding to the front-rear direction of the body part 2A of the worm 2. When the worm 2 is attached to the support part 9 of the worm attachment tool 3 as described above, the bottom surface 2b of the body part 2A hits the upper surface 15A of the support body 15, and the width center part of the synthetic resin body part 2A hits the upper surface 15A, and the part other than the width center part of the body part 2A is deflected, making it possible to hide the base end part 33. Note that the tail part 2B of the worm 2 is not easily restricted by the support part 9, so it is in a free state with respect to the body part 2A.

The regulating part 11 is disposed between the second hook attachment part 21 and the rear end of the body part 2A of the worm 2. Therefore, when the worm 2 is attached to the worm attachment tool 3, the regulating upper surface 43 of the regulating part 11 can come into contact with the body bottom surface 2b of the body part 2A.

Then, the first fishhook 23 and the second fishhook 29 are hung on the split rings 30 of the first fishhook attachment part 20 and the second fishhook attachment part 21 to make the lure 1. The angler then ties a line to the line attachment part 12 and moves the lure 1 in the water. At this time, a blade may be attached to match the first fishhook 23 and the second fishhook 29.

When casting or retrieving the lure 1 in the water, a reaction force acts on the lure 1 via the line. On the other hand, since the worm attachment tool 3 is made of metal, this reaction force can be ignored. However, since the worm 2 is made of the above-mentioned synthetic resin, this reaction force cannot be ignored. In short, a force acts on the worm 2 in a direction that causes it to come off the worm attachment tool 3. The forces that try to remove the worm 2 from the support part 9 include a direct reaction force from the line (a backward force), a force in the left-right direction on the support part 9, a force in the up-down direction on the support part 9, and a force in the torsional direction on the support part 9.

For example, when casting, the direct reaction force of the line mainly acts on the lure 1. However, in the lure 1 of this embodiment, the front surface 2C of the body portion 2A of the lure 1 is fixed by the first insertion portion 8, and the outer tube material 17 of the first insertion portion main body 13 has multiple insertion pieces 18a and pointed pieces 18b on the tube main body 18, and the insertion pieces 18a and pointed pieces 18b are formed on a perpendicular surface whose front end surface is perpendicular to the tube main body 18, so that the body portion 2A is difficult to come off. Moreover, the insertion linear body 31 of the second insertion portion 10 is stored in the worm 2. Specifically, the rising portion 36 and the insertion piece 37 positioned in the positioning portion 32 are embedded in the body portion 2A of the worm 2, and it is difficult to come off backwards by either the rising portion 36 or the insertion piece 37. Therefore, the body portion 2A of the worm 2 is firmly fixed to the worm attachment 3.

Consider the time of retrieval when moving the lure 1 through the water. As mentioned above, the body 2A of the worm 2 is difficult to remove backward from the worm attachment 3, but during retrieval, the lure 1 floats and sinks in the water, or moves left and right. Therefore, the lure 1 frequently floats and sinks, and is subjected to left and right forces on the worm 2.

However, the first insertion section 8 is embedded in the body section 2A of the worm 2, and the rising section 36 and insertion piece 37 of the second insertion section 10 are embedded in the body section 2A, with the insertion piece 37 at a predetermined angle with respect to the upper surface 15A (rising section 36) of the support section 9. Therefore, the first insertion section 8 and the insertion piece 37 resist the force in the floating direction of the worm 2 caused by the sinking of the lure 1, and the position of the body section 2A of the worm 2 relative to the worm attachment tool 3 (support section 9) is secured. In addition, when the lure 1 floats, the bottom surface 2b of the body section 2A of the worm 2 comes into contact with the upper surface 15A of the support section 9, thereby securing the position of the body section 2A of the worm 2.

The first insertion portion 8 is embedded in the body portion 2A of the worm 2, and the rising portion 36 and the insertion piece 37 of the second insertion portion 10 are embedded in the body portion 2A. Therefore, even if the worm 2 is swung left or right, the position of the body portion 2A of the worm 2 is secured.

The tail 2B of the worm 2 is simply extended from the lower end 7b of the front end body 7A rearward to a range corresponding to the front-to-rear direction of the body 2A of the worm 2, so that the tail 2B of the worm 2 is not easily restricted by the support 9 and is free from the body 2A, allowing it to move freely even during retrieval.

In the lure 1 of this embodiment, the insertion linear body 31 of the second insertion portion 10 can be displaced in a direction intersecting the front-rear direction, and therefore, when the first insertion portion 8 and the insertion linear body 31 are inserted into the worm 2, the insertion linear body 31 is displaced. Therefore, the part of the body portion 2A of the worm 2 into which the insertion linear body 31 is inserted is also displaced. Therefore, the position of the worm 2 can be secured by the support body 15 while being moved in a direction intersecting the front-rear direction. In this way, while the worm 2 is firmly fixed by the first insertion portion 8 and the second insertion portion 10, the movement of the worm 2 is improved by the displacement of the insertion linear body 31 of the second insertion portion 10. This results in good fishing results.

The body 2A of the worm 2 is configured so that the tail body 4 and body 2A are meandering in water due to the movement of the tail fin 5 while the worm 2 is firmly fixed to the support body 15 by the first insertion part 8 and the second insertion part 10. This allows the worm 2 to be sensed by the fishing target (fishing target organism) such as fish as if it were live bait, resulting in good catches. Furthermore, the support body 15 is made of metal and is separate from the worm 2, and most of the support body 15 is adjacent to the worm 2, so that the support body 15 easily reflects sunlight in water. This has a fish-attracting effect and results in good catches. The lure 1 can also be used as a worm 2 without a tail fin 5.

In the lure 1 of this embodiment, the first fishhook attachment part 20 is provided on the front end body 7A side of the support part 9 (front region part 9A). In this case, when the lure 1 is moved in the water during retrieval, even if the lure 1 moves in the up, down, left and right directions, the first fishhook 23 is unlikely to get caught on the front end body 7A because the front end body 7A is made of metal. Meanwhile, on the rear side of the support body 15 of the support part 9 (rear region part 9B), the second hole 28 of the second fishhook attachment part 21 is formed between the upper inclined surface 25 and the lower inclined surface 27, and the second fishhook 29 is positioned lower than the first fishhook 23 arranged on the front end body 7A side. Therefore, when the lure 1 is moved in the water during retrieval, even if the lure 1 moves in the up, down, left and right directions, the second fishhook 29 arranged on the worm 2 side is unlikely to get caught on the worm 2.

The lower surface 15B of the support body 15 forms a curved surface 26 that curves downward from the lower surface 15B of the front region portion 9A rearward, but a straight surface can be used instead of the curved surface 26. Furthermore, the upper inclined surface 25 and the lower inclined surface 27 are downwardly inclined surfaces, but they can also be straight surfaces. In this case, the first hole 22 and the second hole 28 are in the same position, but since the restricting portion 11 is provided, the second fishhook 29 is less likely to get caught on the worm 2.

In addition, the support body 15 of the support section 9 (rear region 9B) is provided with a restricting portion 11. The restricting portion 11 is a member that restricts the movement of the second fishhook 29 toward the worm 2 in the area between the second fishhook attachment portion 21 and the worm 2 attached to the support body 15, among the surrounding area of the second fishhook attachment portion 21 in the support body 15.

By providing such a restricting portion 11 on the support body 15, the second fishhook 29 attached to the second fishhook attachment portion 21 can be restricted from moving beyond the support body 15 toward the worm 2, and the second fishhook 29 can be prevented from getting caught (pierced) in the worm 2.

Specifically, as shown in Figures 1, 2 and 7, the regulating part 11 is disposed between the second fishhook attachment part 21 and the worm 2 and includes a space 40 extending rearward from the second fishhook attachment part 21, and front-rear parts 41, 42 disposed closer to the second fishhook attachment part 21 than the space 40 and disposed in front of and behind the second fishhook attachment part 21. With this configuration, the space 40 and the front-rear part 42 can restrict the movement of the second fishhook 29 toward the worm 2, and the front-rear part 41 can restrict the movement of the second fishhook 29 toward the worm 2.

That is, in the space 40 and the front-rear portions 41, 42 of the regulating portion 11, the width dimension t1 in the width direction perpendicular to the front-rear direction of the regulating portion 11 is formed to be larger than the width dimension t in the width direction of the support body 15 (see FIG. 6). With this configuration, the movement of the second fishhook 29 in the width direction can be regulated. In addition, the width of the regulating portion 11, i.e., the regulating upper surface 43 of the regulating portion 11, can be used to stably support the worm 2.

2, in the restricting lower surface 44 of the restricting portion 11, the receiving surface 44c avoids the second hole 28, and the space between the front restricting surface 44d and the restricting lower rear surface 44b is open, so that the second fishhook attachment portion 21 is exposed in the width direction, and the angle formed by the front restricting surface 44d and the restricting lower rear surface 44b is approximately 90°. With this configuration, the split ring 30 of the second fishhook 29 can move freely between the front restricting surface 44d and the restricting lower rear surface 44b.

The rearward movement of the split ring 30 of the second fishing hook 29 is restricted by the restricting lower rear surface 44b (i.e., the front and rear portions 42) as shown by the two-dot chain line in FIG. 2. The forward movement of the split ring 30 is restricted by the restricting lower rear surface 44b as shown by the three-dot chain line in FIG. 2.

With this configuration, when a fish or the like gets caught on the second hook 29, the second hook 29 can move freely between the front restricting surface 44d and the restricting lower rear surface 44b, preventing the so-called dislodging (the hook coming off the fish or the like's mouth). At the same time, the rearward movement of the split ring 30 of the second hook 29 is restricted by the restricting lower rear surface 44b, and the forward movement of the split ring 30 is restricted by the restricting lower rear surface 44b, preventing the second hook 29 from getting caught on the worm 2, thereby increasing the catch.

The restricting portion 11 is arranged so as to fit the second fishhook attachment portion 21 (hook attachment portion). In this case, the restricting portion 11 abuts against the second fishhook attachment portion 21, that is, the steeply inclined rearward surface 42a abuts against the rear surface 15E, restricting the forward movement of the restricting portion 11, and the receiving surface 44c almost completely exposes the second hole 28 (this state is called the normal state). However, a predetermined gap is provided between the restricting portion 11 and the second fishhook attachment portion 21. In other words, the restricting portion 11 is configured to be able to move backward along the upper inclined surface 25 and the lower inclined surface 27 to the extent that the inclined upper opposing surface 40b and the upper inclined surface 25 face each other through a gap, and the inclined lower opposing surface 44e and the lower inclined surface 27 face each other through a gap. In other words, the restricting portion 11 is configured to be able to move in the front-rear direction relative to the second fishhook attachment portion 21. In addition, as a means for preventing the restricting portion 11 from slipping out rearward from the second fishhook attachment portion 21, a part of the restricting portion 11, i.e., the tip end side of the inclined upper opposing surface 40b, is hooked onto the upper inclined surface 25, so that the restricting portion 11 does not slip out rearward from the second fishhook attachment portion 21.

According to this configuration, for example, when casting, the restricting portion 11 is moved backward to reduce the exposed area of the second hole 28, and the movement of the split ring 30 wound around the second hole 28 is suppressed. When retrieving, the lure 1 is moved in the water, and when a fish or the like gets caught on the second fishing hook 29, the force of the fish or the like thrashing around returns the restricting portion 11 (second hole 28) to the normal state or a state close to it. In other words, by suppressing the movement of the split ring 30 during casting, it is ensured that the second fishing hook 29 does not get caught on the worm 2, while when a fish or the like gets caught on the second fishing hook 29, the restricting portion 11 moves forward, so that the exposed area of the second hole 28 can be increased and the degree of freedom of the second fishing hook 29 is restored, which prevents the fish or the like from coming off and leads to improved fishing results.

The present invention is not limited to the above embodiment. In the above embodiment, the positioning portion 32 was a heat-shrinkable sleeve-like body (tube) that encases the base end 33 of the insertion linear body 31 and the support body 15, but it may also be an annular body spaced apart in the front-rear direction that sandwiches the base end 33 and the support body 15.

In the above embodiment, the front region 9A and rear region 9B of the support part 9 are formed integrally. However, for example, the rear region 9B can be divided in the front-rear direction, a rubber member (synthetic rubber member) can be formed in the divided part, and the second insertion part 10 can be provided on the rear side, so that the second insertion part 10 can be supported by the support part 9 so as to be displaceable in a direction intersecting the front-rear direction. In this case, the second insertion part 10 can easily move in the left-right direction via the rubber member.

In the above embodiment, the second insertion portion 10 is composed of a base end portion 33, a tip bent portion 34, and a rear bent portion 35, and the rear bent portion 35 is composed of a rising portion 36 and an insertion piece 37, and the insertion piece 37 is formed at a certain angle relative to the rising portion 36. However, the insertion piece 37 can also be formed at a certain angle so as to be continuous with the rising portion 36.

In the above embodiment, the second insertion portion 10 is composed of a base end portion 33, a tip bent portion 34, and a rear bent portion 35. For example, a part of the base end portion 33 can be formed from a rubber member (synthetic rubber), and with this configuration, the second insertion portion 10 can be supported by the support portion 9 so as to be displaceable in a direction intersecting the front-rear direction. In this case, the rubber member is positioned rearward of the positioning portion 32.

In the above embodiment, the first insertion section 8 is composed of the first insertion section main body 13 and the anti-rotation member 14. However, the anti-rotation member 14 can be omitted. Even in this case, the insertion linear body 31 (rear end curved portion 35) of the second insertion section 10 can be displaced in a direction intersecting the front-rear direction, and the insertion linear body 31 is more easily displaced in the absence of the anti-rotation member 14, and therefore the body portion 2A of the worm 2 is also displaced. This makes it easier to operate the worm 2 in a direction intersecting the front-rear direction.

In the above embodiment, the first insertion portion 8 is composed of a first insertion portion body 13 that is provided so as to protrude from the rear surface 7a of the front end body 7A, and a rotation prevention member 14. However, this configuration is not limited to this, and the second insertion portion 10 can be disposed behind the support portion 9, and the first insertion portion 8 can be formed as a protrusion that protrudes upward from the upper surface 15A of the support body 15.

In the above embodiment, the front-rear end of the insertion piece 37 has a length dimension that does not reach the rear end of the core member 16 below the first insertion portion 8. However, the front-rear end of the insertion piece 37 may have a dimension that overlaps with the rear end of the core member 16 below the first insertion portion 8.

In the above embodiment, the lure 1 is configured so that the worm 2 is on the upper side and is supported by the support part 9. However, the worm 2 and the support part 9 that supports it can also be configured so that they are upside down.

In the above embodiment, the front end 7 is an example of a front end body 7A and a thread attachment part 12. However, the front end body 7A can be omitted, the front end 7 can be composed of the thread attachment part 12, and the support part 9 can be arranged in parallel to the rear side of the thread attachment part 12. In the above embodiment, the front end 7 has a front end body 7A that is a sinker (weight) formed to resemble a fish head. However, the front end body 7A can be a simple sinker without imitating a fish head. In this case, the worm 2 can be a worm 2 having a head imitating a fish head, a body part 2A, and a tail part 2B. In this case, for example, the first insertion part 8 is inserted into the head, and the second insertion part 10 is inserted into the body part 2A. In addition, the worm 2 does not have to be shaped like a fish, and can be shaped like a shrimp, for example. If the worm 2 imitates a shrimp, the shrimp's tail can be placed in front.

In the above embodiment, a restricting portion 11 that restricts the movement of the second fishhook 29 toward the worm 2 is provided in at least the region between the second fishhook attachment portion 21 and the worm 2 attached to the support portion 9 (attachment portion) among the surrounding portion of the second fishhook attachment portion 21 in the support portion 9. The restricting portion 11 has front and rear portions 41, 42 that are located closer to the second hole 28 of the second fishhook attachment portion 21 than the spacer portion 40 and are located in front and rear of the second hole 28 of the second fishhook attachment portion 21. However, the front and rear portions 41 or 42 can also be provided in front of or behind the second hole 28. For example, if the front and rear portions 42 are not provided, the movement of the second fishhook 29 will be restricted by the spacer portion 40.

In the above embodiment, the restricting portion 11 is positioned so as to fit over the second hook attachment portion 21. However, the restricting portion 11 can also be fixed to the support body 15 so that the receiving surface 44c exposes the second hole 28 and is provided in the above-mentioned regular position.

In the above embodiment, the restricting side surface 47 is a flat surface. However, it is also possible to form a bulge portion that bulges in the left-right direction with respect to the lower front-rear portion 42 of the spacer portion 40. In this case, since a bulge portion is formed, the rearward movement of the split ring 30 can be suppressed.

1... Lure, 2... Worm, 2A... Body, 2B... Tail, 2C... Front, 2b... Bottom of body, 3... Worm attachment, 4... Tail main body, 5... Caudal fin, 6... Partition line area, 7... Front end, 7A...front end main body, 7a...rear surface, 7b...lower end, 8...first insertion part, 9...support part, 9A...front region part, 9B...rear region part, 10...second insertion part, DESCRIPTION OF SYMBOLS 11... Regulation part, 12... Thread attachment part, 13... First insertion part main body, 15... Support main body, 15A... Upper surface, 15B... Lower surface, 15D... Front surface, 15E... Rear surface, 18a... Insertion piece, 20... No. One fishhook attachment part, 21...Second fishhook attachment part, 22...First hole, 23...First fishhook, 25...Upper slope, 26... Bay Curved surface, 27... Lower inclined surface, 28... Second hole, 29... Second fishhook, 30... Split ring, 31... Insertion linear body, 32... Positioning part, 33... Base end part, 33a... Axis center, 34 ... Tip curved part, 35... Rear end curved part, 36... Standing part, 37... Insertion piece, 40... Intermediate part, 40b... Inclined upper opposing surface, 41, 42... Front and rear, 42a... Rear side surface, 43... Upper regulation surface, 43a... Same surface, 43b... Support surface, 44... Lower regulation surface, 44a... Lower regulation front surface, 44b... Lower regulation rear surface, 44c... Accommodation surface, 44d... Front regulation surface, 44e... Slanted lower opposing surface, 45... Regulation front, 46... Regulation rear, 47, 47... Regulation side, t... Width dimension, t1... Width dimension

Claims (4)

The fishing target object for catching a fishing target creature can be attached to the fishing target object.
A front end portion disposed at the front side in the front-rear direction;
An attachment portion disposed on the rear side of the front end portion and capable of attaching the fishing target;
A support portion extending rearward from the front end portion and including a hook attachment portion for attaching a fishing hook for catching the living creature,
A fishing target attachment device characterized in that a regulating section is provided in at least the area between the hook attachment section and the fishing target attached to the attachment section, in the surrounding portion of the hook attachment section on the support section, for regulating the movement of the fishhook toward the fishing target. The fishing catch object attachment device according to claim 1, wherein the width dimension of the regulating part in a width direction perpendicular to the front-rear direction is greater than the width dimension of the supporting part in the width direction. The fishing target attachment device according to claim 1 or 2, wherein the regulating portion is disposed between the hook attachment portion and the fishing target, and includes a space portion extending rearward from the hook attachment portion, and a front-rear portion disposed closer to the hook attachment portion than the space portion and in front or rear of the hook attachment portion. A fishing tackle comprising the fishing target attachment device according to claim 1 or 2 and the fishing target attached to the fishing target attachment device.