JP2016198031A - Rocking body for artificial bait - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a rocking body for artificial bait in which the adhesion between rocking bodies is suppressed and the movement with appealing properties to fish can be maintained.SOLUTION: A rocking body for artificial bait is provided as a necktie 14 for a so-called a kabura (artificial bait). This necktie 14 is formed of soft materials and a plurality of ridges 32 are formed on the surface. Preferably, the ridges 32 may be formed in parallel to each other on each of both front and back sides of this necktie 14, and an angle formed with respect to the longitudinal direction of the necktie of the ridge 32a formed on one side from the central part in the longitudinal direction of the necktie 14 is different from the angle formed with respect to the longitudinal direction of the necktie of the ridge 32b formed on the other side.SELECTED DRAWING: Figure 2

Description

  The present invention relates to a pseudo bait used for fishing and a rocking body for pseudo bait.

  Carp fishing is carried out using a pseudo bait called cabra. The simulated bait includes a metal head, a rubber skirt and tie, and a hook assembly. The hook assembly has a hook and silicon. This simulated bait is submerged in the seabed with the line tied. When the line is pulled and the pseudo food rises in the sea water, the flushing of the head appeals to the ridge. In addition, the skirt and tie sway under water pressure. By this swing, the persimmon misunderstands the pseudo bait as a live bait and follows the pseudo bait. First, the heel bites into the skirt or tie. At this stage, no hooking has been done. In addition, the moth bites deeply into the pseudo food and the hook is sucked into the mouth of the moth. This hook is inserted into the kite and the kite is picked up. A pseudo bait suitable for carp fishing is disclosed in Japanese Patent Application Laid-Open No. 2008-212146.

JP 2008-212146 A

  The tie has a sheet shape. The skirt and tie are generally made of rubber latex. The rubber latex surfaces tend to stick together. Sheet ties tend to stick together. Adhesive ties may not separate after being dropped into water. Effective swinging cannot be expected for such a tie. Sticky ties cannot swim to appeal to fish such as carp. It is difficult for a swinging body for a pseudo bait not only in a tie but in a natural state and in a state of being adhered and restrained to have an appealing movement with respect to fish.

  The object of the present invention is to provide a pseudo bait and a pseudo bait rocking body in which the sticking between the rocking bodies is suppressed and a movement with appeal to the fish can be maintained. Here, the pseudo bait rocking body includes one in which the pseudo bait itself is a rocking body.

The rocking body for pseudo bait according to the present invention is formed from a soft material,
At least one of a plurality of protrusions and a plurality of protrusions is formed on the surface.

  The oscillating body preferably has a sheet-like portion at least at a part thereof, and at least one of the protrusions and the protrusions is formed on the surface of the sheet-like portion.

The rocking body is preferably also called a tie, which has a belt-like shape as a whole,
The ridges are formed in parallel to each other on both the front and back sides,
From the central portion, the angle formed with respect to the tie longitudinal direction of the ridge formed on one side of the tie longitudinal direction is different from the angle formed with respect to the tie longitudinal direction of the ridge formed on the other side. .

The pseudo food according to the present invention is:
A head made of high specific gravity material,
Hook assembly attached to this head,
And a rocking body made of a soft material attached to the head,
This rocking body is composed of any of the rocking bodies described above.

  In the rocking body for pseudo bait according to the present invention, the sticking between the rocking bodies can be suppressed, and a movement with appeal to the fish can be maintained. This swinging body invites fish. A high hit rate is achieved by the pseudo bait provided with the rocking body.

FIG. 1 is a partially cutaway front view showing a simulated bait according to an embodiment of the present invention. Fig.2 (a) is a front view which shows the tie for pseudo baits which concerns on one Embodiment of this invention, FIG.2 (b) is the rear view. 3A is a side view taken along the line IIIA-IIIA of the tie shown in FIG. 2, and FIG. 3B is a side view seen along the line IIIB-IIIB. FIG. 4A is a front view showing another tie, and FIG. 2B is a front view showing still another tie.

  Hereinafter, the present invention will be described in detail based on preferred embodiments with appropriate reference to the drawings.

  FIG. 1 is a front view showing a pseudo bait 2 according to an embodiment of the present invention. This simulated bait 2 is called a turnip. The pseudo bait 2 includes a head 4, a mounting tool 6, a split ring 8, a hook assembly 10, a skirt 12 and a tie 14.

  The head 4 is generally spherical. The head 4 may have other shapes. The head 4 is made of a material having a higher specific gravity than seawater. Therefore, the head 4 sinks into seawater. Typically, the head 4 contains tungsten as a main component. The head 4 is formed by sintering. The head 4 may be made of lead or a lead alloy.

  The head 4 has a hole 16. The hole 16 passes through the head 4. The wearing tool 6 is inserted into the hole 6. The mounting tool 6 is plate-shaped. The mounting tool 6 is not limited to a plate shape, and may be formed from, for example, a metal wire. A line eye 18 is formed on one end side of the wearing tool 6, and a hook eye 20 is formed on the other end side. The line eye 18 and the hook eye 20 are exposed from the head 4.

  The split ring 8 is attached to the line eye 18. A line 50 is connected to the line eye 18 via the split ring 8. The split ring 8 is so large that it cannot enter the hole 16. Therefore, the split ring 8 prevents the mounting tool 6 from coming off from the head 4 in the right direction in FIG.

  The hook assembly 10 includes a hook 22 and silicon 24. The hook 22 is made of a metal material. The silicon 24 is made of a flexible material. A typical material of silicon 24 is aramid fiber (registered trademark “Kevlar”). The silicon 24 is tied to the hook eye 20. A hook 22 is fixed to one end of the silicon 24.

  The skirt 12 is composed of a large number of yarns 26. This thread 26 is a “oscillator”. The thread 26 is made of a soft material. The thread 26 is made of an elastomer material. Typically, this thread 26 consists of a rubber composition obtained by a latex process. In this production method, a latex composition is obtained by adding a crosslinking agent and a colorant to natural rubber latex or synthetic rubber latex. A sheet is formed from the latex composition. When this sheet is heated, a crosslinking reaction of rubber occurs. This sheet is cut to obtain a rubber thread 26. The skirt 12 may be made of a soft synthetic resin string.

  The vicinity of the central portion in the longitudinal direction of the rubber thread 26 is attached to the attachment 6 by a rubber band 28. The skirt 12 is folded at the rubber band 20 and both sides thereof extend downward. The rubber thread 26 is flexible. When subjected to water pressure, the rubber thread 26 sways and appeals to the fish. The skirt 12 may not be provided.

  The tie 14 is strip-shaped. As shown in FIG. 2, the outer shape of the tie 14 is generally U-shaped. The width of the tie 14 extends from the central portion (U-shaped bottom) 40 in the longitudinal direction toward both end portions 42, and the width decreases from the middle toward each end portion 42. Further, the thickness of the tie 14 also increases from the longitudinal central portion 40 toward both end portions 42 and decreases from the middle toward each end portion 42. However, the tie is not particularly limited to this outer shape.

  This tie 14 is also a “rocking body”. The tie 14 is also made of a soft material. The tie 14 is made of an elastomer material. Typically, the tie 14 consists of a rubber composition obtained by a latex process. In this production method, a latex composition is obtained by adding a crosslinking agent and a colorant to natural rubber latex or synthetic rubber latex. A sheet is formed from the latex composition. When this sheet is heated, a crosslinking reaction of rubber occurs. This sheet is cut into a band shape, and a tie 14 is obtained. The tie 14 may be formed from a soft synthetic resin.

  The vicinity of the center of the tie 14 is attached to the attachment 6 by a rubber band 28. The tie 14 is folded at the rubber band 20 and both sides thereof extend downward. The tie 14 is flexible. When subjected to water pressure, the tie 14 sways (flickers) and appeals to the fish. The tie 14 may not be provided.

  The angler throws this simulated bait 2 into seawater. Since the simulated bait 2 includes the head 4 having a high specific gravity, the simulated bait 2 settles in seawater and settles down. When the angler pulls the line 50, the pseudo bait 2 rises in the seawater. By pulling the line 50, the skirt 12 and the tie 14 are subjected to water pressure. The skirt 12 and tie 14 swing. This rocking appeals to the fish. For example, the persimmon misunderstands the pseudo bait 2 with polychaetes such as gokai and isome and follows the pseudo bait 2. The crab eats the pseudo food 2. The bag first bites into the skirt 12 or tie 14. Furthermore, the bag sucks the hook 22. This hook 22 pierces the kite and the kite is picked up. The hit rate of this pseudo food 2 is high.

  Some skirts 12 and ties 14 made of rubber latex or the like have adhesiveness on their surfaces. This adhesive strength is not strong. However, if the flat surfaces of the rubber latex are pressed together, the adhesive state may be maintained. For example, when conventional ties are pressed in an overlapping state, they may stick. Even if the ties are stuck together in the water, they may not be separated from each other. In this case, the tie may move unnaturally. Moreover, even when the tie is adhered in a bent state, the flaking is suppressed. Such a tie cannot be expected to appeal to fish effectively.

  The tie 14 attached to the pseudo bait 2 is devised to prevent such adhesion. As shown in FIGS. 2 and 3, the tie 14 is composed of a sheet-like main body 30 and ridges 32 formed on the surface of the main body 30. A plurality of ridges 32 are formed on both the front and back surfaces of the main body 30. By this ridge 32, the surface contact between ties can be suppressed, and adhesion can be prevented. Even in the case of surface contact, if the contact area is reduced, the risk of sticking is eliminated. FIG. 2A is a front view of the tie 14, and FIG. 2B is a rear view. 3A is a side view taken along the line IIIA-IIIA of the tie shown in FIG. 2, and FIG. 3B is a side view seen along the line IIIB-IIIB. The ridges 32 are not necessary in the central portion 40 in the longitudinal direction of the tie 14. However, a ridge may be formed in the central portion 40. The plurality of ridges 32 are formed substantially in parallel at substantially equal intervals. However, it is not limited to such a shape. It does not have to be equally spaced and may not be parallel. A space between the ridges 32 as described above can be called a groove.

  As shown in FIG. 3, in the present embodiment, the ridges 32 are formed not only on the front and back surfaces of the tie 14 but also on the narrow side surfaces. The ridges 32 on the side surface of the tie 14 are connected to the ridges 32 on both the front and back surfaces. In other words, the ridges 32 are formed in a loop shape so as to surround the tie 14 and surround it. A large number of ridge loops are arranged at intervals. However, the ridges 32 may be formed only on the front and back surfaces.

  As shown in FIG. 2, the direction of the ridge 32a formed on one side in the longitudinal direction from the central portion 40 of the tie 14 is different from the direction of the ridge 32b formed on the other side. In the present embodiment, in FIG. 2A, the left half of the ridge 32 a of the tie 14 is inclined about 90 ° with respect to the longitudinal direction of the tie 14 on both the front and back surfaces. The convex half 32b of the right half of the tie 14 is inclined by about 45 ° with respect to the longitudinal direction of the tie 14 on one side surface (front side surface), and is approximately about relative to the longitudinal direction on the other side surface (back surface). It is tilted 135 °. According to this tie 14, when the left part and the right part overlap each other, the ridges 32 will intersect each other. As a result, it is difficult for the tie 14 to make a line contact as well as a surface contact, and there is a high possibility of a point contact. Thereby, adhesion can be prevented.

  Even if the tie 14 has adhesiveness on the surface, the adhesive state cannot be maintained by point contact or line contact. In particular, the adhesive strength in the case of point contact is further weakened. The adhesive state can be instantly released by the elastic restoring force of the tie 14. From this viewpoint, it is preferable that the width of the ridges 32 is small. As for the shape of the cross section of the protruding item | line 32, that whose top is circular arc shape or square shape is preferable. This is because the contact area becomes small.

  The angle formed by the ridges 32 with respect to the longitudinal direction of the tie is not limited to the above. However, from the viewpoint that point contact is preferable to line contact, it is preferable that the direction of the right ridge of the tie is different from the direction of the left ridge. In the tie 14, the position of the ridges 32 on the front side surface and the position of the ridges 32 on the back surface coincide. This is for ease of manufacture. For the function and effect of the tie 14, the formation positions of the front and back ridges do not have to coincide. The direction of the ridges may be the same as or close to the longitudinal direction of the tie 14 as long as the flexibility and flexibility of the tie 14 are not impaired. Further, the plurality of ridges may be crossed with each other, for example, a lattice shape.

  As shown in FIG. 4, a convex portion 38 may be formed in place of the ridge 32 or together with the ridge 32. The convex portion 38 has a substantially hemispherical shape. However, the convex portion 38 is not limited to a hemispherical shape, and may have a conical shape, a pyramid shape, or the like. The convex portion 38 may have a cylindrical shape whose upper end has a hemispherical shape or a conical shape. The convex portion 38 may have a prismatic shape whose upper end has a pyramid shape. These shapes are preferable because the contact area becomes small.

  In the tie 34 of FIG. 4A, a large number of convex portions 38 are formed on both the front and back surfaces except the central portion 40. The convex portions 38 are arranged irregularly, that is, randomly. However, the convex portions 38 may be regularly arranged. For example, the convex portions 38 may be aligned at the same interval in both the vertical direction and the horizontal direction. Further, the convex portions 38 may be arranged at different intervals. By this convex part 38, the surface contact between ties can be prevented and adhesion can be prevented. With this tie 34, even line contact is prevented. Parts other than the convex part 38 can be called a concave part. The convex portions 38 may be formed on the side surfaces as well as the front and back surfaces of the main body 30.

  In the tie 36 shown in FIG. 4B, the protrusions 32 are formed on one side (left side in the figure) of the longitudinal direction from the central part 40, and the protrusions 38 are formed on the other side (right side in the figure). The ridges 32 are inclined about 90 ° with respect to the longitudinal direction of the tie 36. This inclination angle is not limited to 90 °. For example, the inclination angle may be 45 ° or 0 °. Since this ridge 32 is the same as the ridge 32a formed in the left half of the tie 14 of FIG. 2A mentioned above, the description is abbreviate | omitted. The convex portions 38 are irregularly arranged. However, the arrangement is not limited to this. The protrusions 38 may be aligned at the same interval both vertically and horizontally, or may be aligned along other rules. Due to the ridges 32 and the projections 38, surface contact between the ties can be prevented, and adhesion can be prevented. With this tie 34, even line contact can be prevented.

  Although not shown, the protrusion 32 and the protrusion 38 may be mixed. For example, a plurality of convex portions 38 may be formed between the ridges 32. In this case, the interval between the ridges 32 can be made larger than the interval between the ridges 32 shown in FIGS. 2 and 4. In addition, one or a plurality of convex portions 38 may be formed in a rectangular space of the ridges 32 formed in a lattice shape.

  The plurality of ridges 32 described above need not be unified at the same height. Further, the large number of convex portions 38 need not be unified at the same height. The ridges 32 and the projections 38 need not be unified at the same height.

  The ridges 32 described above are all linear including the lattice shape. However, the ridge is not limited to a linear shape, and may be a curved shape. For example, the ridge may form a loop. In such a case, a portion other than the ridges can be called a recess. A convex portion 38 may be formed in a recess inside the loop.

  The simulated bait described above is a turnip, and the swinging body is a tie and a skirt attached to the turnip. However, the pseudo bait and the rocking body are not limited to these. The present invention is applicable to lures including other oscillators having a sticky surface, so-called worms. That is, the “pseudo bait oscillating body” herein includes those in which the quasi bait itself is an oscillating body. Further, the tie is not limited to the shape shown in FIGS. A tie having an outer shape such as an S-shape may be used.

  The simulated bait according to the present invention is suitable for fishing targeting not only carp but also various fishes such as sword fish, flounder, ainame, magoti and puffer fish.

2 ... Pseudo bait
4 ... Head 6 ... Mounting tool 8 ... Split ring 10 ... Hook assembly 12 ... Skirt 14, 34, 36 ... Tie 16 ... Hole 18 ... Line eye 20. ··· Hook eye 22 ··· Hook 24 · · · Silicon 26 · · · Rubber thread 28 · · · Rubber band 30 · · · (Tie) body 32 · · · ridge 38 · · · convex portion 40 · · ·・ Center (of tie) 42 ... End (of tie) 50 ... Line

Claims (4)

Made of soft material,
An oscillating body for pseudo bait, on which at least one of a plurality of ridges and a plurality of projections is formed on the surface. At least part of it has a sheet-like part,
The rocking body according to claim 1, wherein at least one of the ridges and the protrusions is formed on a surface of the sheet-like portion. It is also called a tie, which has a band shape as a whole.
The ridges are formed in parallel to each other on both the front and back sides,
The angle formed with respect to the tie longitudinal direction of the ridge formed on one side of the tie longitudinal direction from the central portion is different from the angle formed with respect to the tie longitudinal direction of the ridge formed on the other side. The rocking body according to claim 2. A head made of high specific gravity material,
Hook assembly attached to this head,
And a rocking body made of a soft material attached to the head,
A pseudo bait, wherein the rocking body is the rocking body according to any one of claims 1 to 3.

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