JPH0510615Y2 - - Google Patents

Description

[Detailed description of the invention] A. Field of industrial application This invention relates to a free-flowing tenbin that prevents fish from getting entangled in the trail line or main line during fishing. , can detect fish signals extremely sensitively when bottom fishing for rockfish, flounder, goby, white geese, etc.
Furthermore, the present invention relates to a floating tenbin that does not allow the Harris to become entangled with the road line or the main line when loading the work.

B. Prior Art As a conventional floating balance balance, for example, as shown in FIG.
A so-called one-piece ten weight tenbin B in which a fishing line 33 is passed through b, and an L-shaped tenbin B in which a weight 42 is attached to the vertical extension of an L-shaped wire 41 and a fishing line 43 is passed through loops 41a and 41b at both ends, as shown in FIG. C
Alternatively, as shown in FIG. 5, a weight 52 is attached to the center of a plastic pipe 51 curved into an arc, and a fishing line 5 is attached to the plastic pipe 51.
As shown in Figure 6, the horizontal parts of the L-type balance C are connected to a small diameter pipe 6.
A half-through L-shaped tenbin E is known, in which a fishing line 63 from a loop 61a of a vertical wire 61 is passed through the pipe 62.

C. Problems to be solved by the invention Single-scale balance type balance B described in the conventional technology
Or L-type tenbin C, wires 31, 41 and fishing line 3
Because the gap between 3 and 43 is extremely wide, fish 34 and 44 pass between them and Harris 35 and 45.
There was a drawback that the fishing lines 33 and 43 became entangled with each other.

In addition, the hollow type tenbin C had the disadvantage that the plastic pipe 51 was relatively thick, had little elasticity, and had a large resistance to water flow.

Furthermore, the half-through L-type tenbin E has fishing line 63
Since the fishing line 63 passes while being bent at a right angle, the resistance of the fishing line 63 becomes large, resulting in a lack of smoothness and the disadvantage of damaging the fishing line 63.

The present invention was devised in view of the above-mentioned shortcomings of the conventional technology, and its purpose is to be able to sense the fish's signal extremely sensitively and convey it to the tip of the rod, and to be able to convey it to the tip of the rod when feeding the bait. To provide a floating tenbin with a simple structure and low cost, which prevents the Harris from getting entangled with the road line or the main line when fishing or fishing.

D. Means for Solving the above-mentioned Problems In order to achieve the above-mentioned object, the present invention has a structure in which a loop 2b is formed at the lower end of a narrow-diameter metal archtube 1 to which a weight 3 is attached below. A linear arm wire 2 is welded and fixed, and the lower part of the fishing line 5 passed through the arch tube 1 is passed along the arm wire 2 and into the loop 2b at the lower end thereof.

In the embodiment, when a fish is caught on the hook 11, the hook 10 is pulled, and when the hook 10 is pulled, the fishing line 5 connected to the hook 10 is inserted and fixed in the middle of the fishing line 5, and the stop bead 8 is inserted into the arm wire 2. It is pulled until it abuts the loop 2b.

At this time, the fishing line 5 descends within the arch tube 1 and smoothly moves downward along the substantially straight arm wire 2.

In bottom fishing, the weight 3 below the arch tube 1 constantly keeps the arch tube 1 and the arm wire 2 in a well-balanced state as shown in Figure 2, which is the ideal state for obtaining good fishing results. It works like this.

F. Example Hereinafter, one example of implementing the present invention will be described in detail based on the drawings.

Figures 1 and 2 show a floating balance A according to the present invention, which is constructed as follows.

That is, an arch tube 1 is formed by curving a stainless steel tube with a small diameter (about 1 mm in outer diameter and 0.8 mm in inner diameter) into an arc shape, and the lower end of the arch tube 1 in the extending direction is wound through an L-shaped bent part 2a. The arm wire 2 is provided with a substantially linear arm wire 2 which is fixed by welding.

A weight 3 is welded to the lower part of the arch tube 1, passing through its center, and a loop-shaped bead 4 for preventing thread breakage is bonded to the upper end.

The arm wire 2 is made of highly elastic stainless steel, and has a loop 2b formed at its lower end.

Note that the lengths of the arch tube 1 and the arm wire 2 are, for example, about 60 mm for the arch tube 1 and about 170 mm for the arm wire 2, but of course they are not limited to these.

Next, the fishing line 5 inserted through the arch tube 1 is connected to the main line 7 via the vertical twist of the connecting fitting 6 at the upper part, and the round threaded stop bead 8 at the lower part, and further to the arm wire 2. After passing the loop 2b through the lower end, it is connected to the Harris 10 via the clip-equipped connector of the connecting fitting 9.

This Harris 10 has a Hari 11 tied to its lower end.

The stop bead 8 is fixed to a predetermined position of the fishing line 5 by passing the fishing line 5 through it several times (approximately twice) with adhesive. loop 2
Each abuts on b.

At this time, the round stop bead 8 moves upward at the bent portion 2a of the arm wire 2 as the fishing line 5, which maintains a substantially parallel state along the arm wire 2, rises.
Because of this, the lower end of the arch tube 1 comes into contact smoothly without resistance.

The same is true when descending.

G. Effects of the invention As described above, the floating balance balance according to the invention has
A long straight arm wire 2 is connected to the lower end of a thin metal arch tube 1.
This balance combines the advantages of the conventional external floating balance scale and the internal tension balance.

That is, since the connection state between the arch tube 1 and the arm wire 2 is close to a straight line, the fishing line 5 can move smoothly with less resistance, and
Since the fishing line 5 is close to the arm wire 2 and the distance between them is extremely narrow, the fish can pass between them and reach the Harris 10.
There is almost no possibility that these things will become entangled.

Further, since there is no fishing line guide member other than the loop 2b at the lower end of the arm wire 2, there is little risk that the fishing line 5, Harris 10, etc. will become entangled when casting the hook.

Furthermore, due to the excellent elasticity of the substantially straight arm wire 2, even if the entire device becomes immovable due to an obstacle on the seabed, the fish can eat the bait without being wary. Despite its simple structure and low price, it has many advantages, such as being able to transmit fish signals extremely sensitively and reliably to the rod tip, allowing for a larger number of catches.

[Brief explanation of drawings]

Figure 1 is a front view of a floating-type balance A as an example of implementing the present invention, and Figure 2 is a front view of a floating-type balance A according to the present invention.
Explanatory diagram when AA is stationed on the seabed, 3rd to 6th
The figures are front views of conventional floating-type balances B, C, D, and E. Main symbols in the figure, A... floating type tenbin, 1...
Arch tube, 2...Arm wire, 2a...
...bending part, 2b... loop, 3... weight, 4...
... Beads, 5 ... Fishing line, 6, 9 ... Connection fittings, 7
...Stem thread, 8...Stop beads, 10...Harris, 11...Hari.

Claims (1)

[Scope of utility model registration request] A substantially linear arm wire 2 with a loop 2b formed at the lower end is welded and fixed to the lower end of a small diameter metal arch tube 1 with a weight 3 attached to the lower end,
A floating tenbin characterized in that the lower part of the fishing line 5 inserted into the arch tube 1 is passed along the arm wire 2 and into the loop b at the lower end of the arm wire 2.