JP4370523B2 - Fishing gear processing tools - Google Patents

Description

  The present invention relates to a fishing gear processing tool, and more particularly to a fishing gear processing tool used for binding fishing lines.

  For example, in lure fishing at sea, the lure is not tied directly to the main line as a fishing line, but another strong fishing line called a leader is tied to the tip of the main line, and the lure is the tip of the leader. Often tied together. A bundling portion or a bundling method of lines and lines, lines and lures, etc. is called a knot.

  There are a variety of knots, from traditional ones to those devised by individuals. Each knot has advantages and disadvantages, but what is important about the knot is that it is strong, the bundling operation is simple, and the bundling operation is quick. Even with the same knot, there is a great difference in strength and bundling speed depending on the proficiency level of the worker.

  Among knots that unite the main line and the leader, a knot called “bobbin knot” is known among fishing enthusiasts. Bobbin knots are sometimes called packed rat knots. Since the bobbin knot is bound using a tool, a knot having high strength can be made relatively easily regardless of the skill level of the operator, and the binding operation is relatively simple and quick. For this reason, the bobbin knot is often used as a knot for binding the main line and the leader. Tools used for bobbin knots are bobbins and bobbin holders. As the bobbin and the bobbin holder, those used in fly fishing or the like are used (for example, see FIG. 8 and Patent Document 1). Hereinafter, a typical bobbin knot procedure will be described.

  First, as shown in FIG. 9, the bobbin 81 and the bobbin holder 82 are prepared. As the bobbin 81, a bobbin 81 in which a weight is increased by inserting a weight into a hole provided in the center portion is used. The main line 92 is passed through the conduit 83 of the bobbin holder 82. The main line 92 passes from the distal end side of the conduit 83. The main line 92 through the conduit 83 is wound around the arm 84 of the bobbin holder 82 at an appropriate number of times. After the main line 92 is wound around the arm 84, the tip of the main line 92 is fixed to the bobbin 81. The main line 92 is wound around the bobbin 81 by rotating the bobbin 81 several times.

  Here, the reason why the main line 92 is wound around the arm 84 of the bobbin holder 82 is to cause resistance in the main line 92. The reason why resistance is generated in the main line 92 is to make it difficult to pull out the main line 92 from the tip of the conduit 83 and to apply a tightening force when the leader 93 is tightened by the main line 92, as will be described later.

  After the preparation of the bobbin 81 and the bobbin holder 82, as shown in FIG. 10, the main line 92 and the leader rear end portion 93a (the knot side) are combined and held with one finger. The position for gripping the main line 92 is about 10 cm from the tip of the conduit 83. The middle part of the leader 93 is held with the other finger. The leader rear end 93a is turned up, and the main line 92 and the leader 93 are held in the vertical direction. The bobbin holder 82 is rotated so as to be slightly swung around the leader 93, and the main line 92 is wound spirally in a range of about 5 cm to 10 cm from the rear end portion 93a of the leader. As shown in FIG. 11, the winding end part is grasped with fingers.

  Next, as shown in FIG. 12, the leader 93 around which the main line 92 is wound is held in a state of being stretched in the horizontal direction. As shown in FIG. 13, the leader 93 is shaken with both hands, and the bobbin holder 82 is rotated around the leader 93. When rotated, the main line 92 is pulled out little by little from the tip of the conduit 83 by the centrifugal force acting on the bobbin 81 and the bobbin holder 82. The main line 92 is wound toward the leader rear end 93a while the main line 92 and the leader 93 already wound around the leader 93 are tightened. At this time, the bobbin holder 82 is rotated while keeping the tip of the conduit 83 always close to the leader 93.

  When the bobbin holder 82 reaches the rear end portion 93a of the leader, the winding is finished. The number of windings is about 150 times. The main line 92 (hereinafter referred to as “end line of the main line 92”) remaining on the bobbin 81 is pulled out from the bobbin 81 and removed so that the wound portion is not unwound with fingers. The end line of the main line 92 is knitted with a half hitch several times to the leader rear end portion 93a (not shown). Further, the end line of the main line 92 is knitted to the main line 92 by a half hitch (not shown). The bobbin knot is completed by cutting the remaining part of the main line 92 end line and the leader rear end part 93a.

  What is important in securing the strength of the bobbin knot described above is to firstly apply an appropriate tightening force to the main line 92 and tighten the leader 93, and secondly, always keep the tip of the conduit 83 at the end. The bobbin holder 82 is rotated while keeping the state close to the leader 93 (see FIG. 13).

  Of these, the tightening force applied to the main line 92 needs to be stronger as the strength of the main line 92 is stronger or the diameter of the leader 93 is larger. This tightening force is generated by the centrifugal force acting on the bobbin holder 82 and the bobbin 81. Therefore, by increasing the weight of the bobbin 81 or increasing the rotational speed of the bobbin holder 82 to increase the centrifugal force. , Tightening force can be increased.

  In addition, it is important to rotate the bobbin holder 82 while keeping the tip of the conduit 83 always close to the leader 93. By rotating in this state, the main line 92 is not spaced from the leader 93. This is because it can be tightly wound (see FIG. 13). If the main line 92 cannot be tightly wound, the winding portion of the main line 92 is displaced, the tightening force is reduced, and the strength of the bobbin knot is reduced.

  As described above, in the bobbin knot, it is necessary to rotate the bobbin holder 82 while applying an appropriate tightening force to the main line 92 and keeping the tip of the conduit 83 always close to the leader 93. For this reason, it is extremely important to adjust the strength of the resistance of the main line 92.

  That is, when the resistance of the main line 92 is weak, the main line 92 is easily pulled out by the weight and rotation of the bobbin 81 and the bobbin holder 82. For this reason, when the bobbin holder 82 is rotated around the leader 93 with the end of the conduit 83 always approaching the leader 93, only a slow rotation is applied to the bobbin holder 82, the centrifugal force is insufficient, and the clamping force Therefore, the strength of the bobbin knot cannot be secured.

  On the other hand, if it is rotated fast so as to ensure a tightening force, the tip of the conduit 83 is separated from the leader 93, and the main line 92 cannot be tightly wound around the leader 93 without a gap. In this case as well, the strength of the bobbin knot cannot be ensured.

  Further, when the resistance of the main line 92 is strong, the main line 92 is hardly pulled out even if the bobbin holder 82 is rotated. In this case, not the tip of the conduit 83 but the intermediate portion is close to the leader 93, and the main line 92 cannot be tightly wound around the leader 93 without being spaced apart, and the bobbin holder 82 rotates smoothly. As a result, it is difficult to make a bobbin knot.

  Therefore, the strength of the resistance of the main line 92 must be adjusted according to the weight of the bobbin 81 and the bobbin holder 82 and the rotation speed. For example, if the weight of the bobbin 81 is increased or the rotational speed of the bobbin holder 82 is increased, the centrifugal force increases, so that the resistance needs to be increased. On the other hand, if the weight of the bobbin 81 is decreased or the rotational speed of the bobbin holder 82 is decreased, the centrifugal force is reduced, so the resistance needs to be weakened.

JP-A-11-169049

  As described above, in the bobbin knot, it is extremely important to adjust the strength of resistance generated in the main line 92. However, in the conventional method using the bobbin 81 and the bobbin holder 82, resistance is generated by winding the main line 92 around the arm 84 of the bobbin holder 82. Resistance strength must be adjusted by increasing or decreasing the number of windings. Therefore, after adjusting all of the bobbin 81 and the bobbin holder 82, when adjusting the strength of the resistance again, the main line 92 is once pulled out of the bobbin 81, the number of windings is increased and decreased, and then the bobbin 81 is again connected. The bobbin holder 82 must be prepared. Therefore, there is a problem that it is very time-consuming to adjust the strength of the resistance, although the adjustment of the strength of the resistance is extremely important.

  In the bobbin knot, the tightening force by the main line 92 is generated by the centrifugal force acting on the bobbin holder 82 and the bobbin 81. However, in the conventional method using the bobbin 81 and the bobbin holder 82, There is a problem that it is difficult to increase or decrease the weight of the bobbin 81 and the bobbin holder 82 in order to adjust the tightening force.

  The present invention has been made in view of the above-described problems, and a first object thereof is to provide a fishing tackle processing tool suitable for making a bobbin knot that can easily adjust the strength of resistance. It is in. A second object is to provide a fishing tackle processing tool that is easy to adjust the weight and suitable for making a bobbin knot.

In order to achieve the above object, the invention according to claim 1 is a rotating body having a winding portion around which a fishing line is wound, an arm portion that rotatably supports the rotating body by a support shaft, and the arm portion. And a guide part for guiding a fishing line to a position separated from the winding part of the rotating body, and a braking surface in contact with the rotating body, and a pressure at a contact portion between the rotating body and the braking surface is adjusted. And a braking force adjusting means for increasing / decreasing a frictional force generated in the rotating body by increasing / decreasing the rotating body, wherein the rotating body includes a weight accommodating space in which an open end is formed, A weight that can be accommodated in the weight accommodating space from the open end portion so as to be freely inserted and removed, and a closing member that closes a part or all of the open end portion.

According to a second aspect of the present invention, in the first aspect of the invention, the opening of the guide portion can adjust the distance from the winding portion of the rotating body.

(Function)
Therefore, according to the first aspect of the present invention, since the braking force adjusting means makes the braking surface contact the rotating body, a frictional force is generated on the rotating body. By increasing or decreasing the pressure at the contact portion between the rotating body and the braking surface, the frictional force generated in the rotating body increases or decreases. For this reason, the strength of the resistance of the rotating body can be easily adjusted.
In addition, the rotating body has a weight accommodating space, the weight is accommodated in the weight accommodating space, and the weight of the rotating body is increased or decreased in order to prevent the weight from being accidentally pulled out by closing the open end. The weight of the processing tool can be easily adjusted.

According to the second aspect of the present invention, the opening of the guide portion can adjust the distance from the winding portion of the rotating body. For this reason, the distance from the opening part of a guide part to a gravity center position can be adjusted.

As described in detail above, according to the first and second aspects of the invention, when making a bobbin knot that binds the main line for fishing and the leader, it is possible to easily adjust the strength of the resistance of the rotating body. Therefore, the strength of the main line resistance can be easily adjusted. Therefore, a high-strength bobbin knot can be easily made.

According to the first aspect of the present invention, the weight of the fishing gear processing tool can be easily adjusted by increasing or decreasing the weight of the rotating body. For this reason, when used for a bobbin knot, the strength of the centrifugal force can be easily adjusted, and an appropriate tightening force can be applied to the main line. Moreover, it is not necessary to prepare a plurality of rotating bodies having different weights. Therefore, a high-strength bobbin knot can be easily made.

According to invention of Claim 2 , the distance from the opening part of a guide part to a gravity center position can be adjusted. For this reason, when used for a bobbin knot, the strength of the centrifugal force can be easily adjusted, and an appropriate tightening force can be applied to the main line. Therefore, a high-strength bobbin knot can be easily made.

  An embodiment embodying the present invention will be described with reference to FIGS.

  A fishing tackle processing tool 1 according to Embodiment 1 of the present invention will be described with reference to FIGS. 1 to 5 and FIG. 7. As shown in FIG. 1, the fishing gear processing tool 1 according to the first embodiment includes a rotating body 2, an arm portion 3, a guide portion 4, and a braking surface 51.

  The rotating body 2 is a portion for winding a fishing line and adjusting the weight of the fishing gear processing tool 1. As shown in FIG. 4, the rotating body 2 has a winding part 21 and a friction surface 22. The outer shape of the rotating body 2 is substantially cylindrical. A portion corresponding to the side surface is the winding portion 21. A portion corresponding to the bottom surface is the friction surface 22. The material of the rotating body 2 can be a metal material such as aluminum or stainless steel or a synthetic resin material.

  The winding portion 21 is a portion around which a fishing line is wound. The winding portion 21 is provided with a non-slip portion 29. The non-slip portion 29 is a portion that prevents the fishing line from slipping inadvertently. As the non-slip portion 29, a silicon rubber tube is fitted. The anti-slip portion 29 is not only by means for fitting a member on the winding portion 21 but also by means for applying a rubber-based paint or the like to the winding portion 21 or means for forming a narrow groove or knurl on the surface of the winding portion 21. Can be provided.

  The friction surface 22 is a portion where the braking surface 51 comes into contact. A shaft hole 26 that penetrates the rotating body 2 is formed in a substantially central portion of the friction surface 22. A friction surface 22 is formed around the shaft hole 26.

  As shown in FIG. 4, the rotating body 2 has a weight accommodating space 23 formed around the shaft hole 26. The weight storage space 23 is a part that adjusts the weight of the fishing gear processing tool 1 by storing and removing the weight 25 described later to increase or decrease the weight of the rotating body 2. The weight accommodation space 23 is an open end 24 that is open at one end, and the other end is closed.

  The weight 25 is a part that is accommodated in and removed from the weight accommodating space 23, adjusts the weight of the fishing tackle tool 1, and increases or decreases the weight of the rotating body 2 of the rotating body 2. As shown in FIG. 2, the weight 25 has a shape that can be accommodated in and removed from the weight accommodating space 23. The weight of the rotating body 2 is increased or decreased by increasing or decreasing the number of weights 25 accommodated in the weight accommodating space 23.

  As shown in FIG. 4, the rotating body 2 includes a thread stopper 27. The thread stopper 27 is a member for locking the tip of the fishing line. The thread stopper 27 includes a groove (not shown) and two annular elastic members 28. The groove portion is formed in the winding portion 21 of the rotating body 2. The width of the groove has a width that accommodates two annular elastic members 28. The two annular elastic members 28 are fitted into the groove portions and attached so as to be in close contact with each other.

  The arm portion 3 is a portion that supports the rotating body 2 and is provided with a later-described guide portion 4. As shown in FIG. 2, a support shaft 31 protrudes from one end of the arm portion 3. The support shaft 31 is a portion that passes through the rotating body 2 and rotatably supports the rotating body 2. A male screw is formed at the tip of the support shaft 31. On the other hand, as shown in FIGS. 2 and 3, a slit 32 is formed at the other end of the arm 3 in the thickness direction of the arm 3. Inside the slit 32, an insertion portion 33 for inserting the guide portion 4 described later is formed. The direction in which the insertion part 33 is formed is a direction substantially orthogonal to the support shaft 31. Further, guide portion adjusting bolts 34 penetrating the slit 32 are provided on both sides of the insertion portion 33. By tightening the guide adjustment bolt 34, the interval between the slits 32 can be reduced.

  The guide portion 4 is a portion that guides a fishing line wound around the rotating body 2. As shown in FIG. 1, the guide portion 4 is tubular, and a space through which a fishing line can be inserted is secured. Both ends of the guide portion 4 have openings 41. A smooth and hard ring made of a material such as ceramic is provided on the peripheral portion of the opening 41 so as not to damage the fishing line (not shown). The guide portion 4 is inserted through an insertion portion 33 formed in the slit 32 of the arm portion 3. By tightening the guide part adjusting bolt 34, the gap between the slits 32 is narrowed to hold the guide part 4. When the amount of protrusion of the guide portion 4 from the slit 32 is adjusted, the guide portion adjusting bolt 34 is loosened, the position of the guide portion 4 is adjusted, and then the guide portion adjusting bolt 34 is tightened.

  The braking force adjusting means has a braking ring 5 and an adjusting member 6. The braking ring 5 is a member that has a braking surface 51 and causes the rotating surface 2 to generate a frictional force by bringing the braking surface 51 into contact with the friction surface 22 of the rotating body 2. As shown in FIG. 2, the brake ring 5 is made of a metal material and has a disk shape. A through hole 52 that can be loosely fitted to the support shaft 31 is formed at the center. The support shaft 31 supports the first brake ring 5, then supports the rotating body 2, and further supports the second brake ring 5. The rotating body 2 and the brake ring 5 are supported on the support shaft 31, and the surface that faces and contacts the friction surface 22 is the braking surface 51 of the brake ring 5. The brake ring 5 serves as a closing member that closes the open end 24 of the weight accommodating space 23 formed in the rotating body 2 by contacting the rotating body 2.

  The adjusting member 6 is a member that increases or decreases the pressure at the contact portion between the friction surface 22 and the braking surface 51 of the rotating body 2. The adjustment member 6 is formed with a female screw that is screwed into a male screw formed on the support shaft 31. As shown in FIGS. 2 and 3, a knob 61 for rotating the adjustment member 6 with fingers is formed on the surface. As the adjusting member 6 is screwed onto the support shaft 31 and tightened, the pressure at the contact portion between the friction surface 22 and the braking surface 51 of the rotating body 2 increases, and the friction force generated on the rotating body 2 increases. On the contrary, as the adjusting member 6 is loosened, the pressure at the contact portion between the friction surface 22 and the braking surface 51 of the rotating body 2 decreases, and the frictional force generated in the rotating body 2 decreases.

  Next, a case where a typical bobbin knot is made with the main line 92 as a fishing line and the leader 93 using the fishing gear processing tool 1 according to the present embodiment will be described.

  First, the fishing gear processing tool 1 is prepared. The adjustment member 6 and the brake ring 5 are removed from the support shaft 31 to expose the open end 24 of the weight housing space 23 of the rotating body 2. The weight 25 is accommodated or removed from the open end 24 in the weight accommodating space 23 to increase or decrease the weight of the rotating body 2 and adjust the weight of the fishing tackle processing tool 1. The weight of the fishing gear processing tool 1 is increased as the strength of the main line 92 is increased or the diameter of the leader 93 is increased. FIG. 7 shows an approximate standard of the weight of the fishing gear processing tool 1 corresponding to the strength (number) of the main line 92. Thereafter, the brake ring 5 is passed through the support shaft 31, and the adjustment member 6 is screwed onto the support shaft 31.

  As shown in FIG. 5, the main line 92 passes through the opening 41 on the distal end side of the guide portion 4. The leading end of the main line 92 is locked to the rotating body 2. The main line 92 is locked by winding the main line 92 around a portion where the elastic members 28 of the thread stopper 27 of the rotating body 2 are in close contact with each other, and winding the main line 92 around the elastic member 28 of the thread stopper 27. Can be held. Since the thread stopper 27 can quickly lock the front end of the main line 92, the fishing tackle tool 1 can be quickly prepared, and a bobbin knot can be quickly formed.

  In order to wind the main line 92 around the winding portion 21 of the rotating body 2, the main line 92 is grasped and wound from the side of the adjustment member 6 with fingers. If the main line 92 is wound from the side of the adjustment member 6, the main line 92 can be wound without the arm 3 being obstructed because there is no arm 3. Further, since the winding portion 21 is provided with the anti-slip portion 29, the main line 92 is difficult to slip when the main line 92 is wound around the winding portion 21, and the main line 92 can be wound around the winding portion 21. Easy. In addition, the wound fishing line is less likely to slip with respect to the winding part, and it is difficult to apply force to the thread stopper, and the fishing line is inadvertently pulled out of the thread stopper while the fishing gear processing tool is in use. This can be prevented.

  The resistance of the main line 92 is adjusted by rotating the adjusting member 6. By rotating the adjusting member 6, the pressure is applied to the rotating body 2 to increase or decrease the pressure at the contact portion between the rotating body 2 and the braking surface 51. Thereby, the frictional force generated in the rotating body 2 increases or decreases, and the strength of the resistance of the rotating body 2 can be easily adjusted. The resistance of the main line 92 increases as the strength of the main line 92 increases or the diameter of the leader 93 increases. FIG. 7 shows an approximate guide for the resistance of the main line 92 corresponding to the strength (number) of the main line 92.

  After the preparation of the fishing gear processing tool 1, the main line 92 and the leader rear end portion 93a (the knot side) are combined and held with one finger (see FIG. 10). The position for gripping the main line 92 is about 10 cm from the tip of the guide portion 4. The middle part of the leader 93 is held with the other finger. The leader rear end 93a is turned up, and the main line 92 and the leader 93 are held in the vertical direction. The fishing gear processing tool 1 is rotated so as to be slightly swung around the leader 93, and the main line 92 is spirally wound in a range of about 5 cm to 10 cm from the rear end portion 93a of the leader. The winding end portion is grasped with fingers (see FIG. 11).

  Next, the leader 93 around which the main line 92 is wound is held in a state of being stretched in the horizontal direction. The tip of the guide part 4 is brought into contact with the reader 93 (see FIG. 12). Shake the leader 93 with both hands to rotate the fishing gear processing tool 1 around the leader 93 (see FIG. 13).

  When the fishing gear processing tool 1 is rotated around the leader 93, the main line 92 is pulled out little by little from the opening 41 on the distal end side of the guide portion 4 due to the centrifugal force acting on the fishing gear processing tool 1. The main line 92 is wound toward the leader rear end 93a while the main line 92 and the leader 93 already wound around the leader 93 are tightened. Moreover, the main line 92 is tightly wound without a space | interval by always making the opening part 41 of the front end side of the guide part 4 approach the leader 93, and rotating the fishing tackle tool 1 around the leader 93.

  The tightening force by the main line 92 is increased as the strength of the main line 92 is increased or the diameter of the leader 93 is increased. Since the tightening force by the main line 92 is generated by the centrifugal force acting on the fishing tackle processing tool 1, the weight of the fishing tackle processing tool 1 is increased, the amount of protrusion from the slit 32 of the guide portion 4 is adjusted, the fishing tackle processing tool It can be adjusted by increasing or decreasing the rotational speed of 1. Adjustment of the guide part 4 can be easily performed by loosening the guide part adjusting bolt 34 of the arm part 3 and adjusting the position of the guide part 4 and then tightening the guide part adjusting bolt 34.

  When the fishing gear processing tool 1 reaches the leader rear end portion 93a, the winding is finished. The number of windings is about 150 times. The fingers are gripped with fingers so that the wound portion cannot be unwound, and the main line 92 remaining on the rotating body 2 is pulled out and removed. Hereinafter, the end line of the main line 92 is knitted with the half hitch several times with respect to the leader rear end portion 93a, and the main line 92 end line is knitted with the half hitch about 10 times. The bobbin knot is completed by cutting the remaining part of the main line 92 end line and the leader rear end part 93a.

  A fishing tackle processing tool 1 according to Embodiment 2 of the present invention will be described with reference to FIG. The fishing tackle processing tool 1 according to the second embodiment is different from the first embodiment in that the arm portion 3 is bifurcated. The same parts as those in the first embodiment are denoted by the same reference numerals, and detailed description thereof is omitted.

  As shown in FIG. 6, the arm part 3 is bifurcated. On the free end side of the arm portion 3, a through hole through which a bolt 71 as a support shaft passes is formed (not shown). The bolt 71 as a support shaft passes through the arm portion 3, the brake ring 5, and the shaft hole 26 of the rotating body 2. A wing nut 72 as an adjustment member is screwed to the other end of the bolt. By rotating the wing nut 72 as an adjustment member, the pressure is applied to the rotating body 2 to increase or decrease the pressure at the contact portion between the rotating body 2 and the braking surface 51. Thereby, the frictional force produced in the rotary body 2 increases / decreases. For this reason, the strength of the resistance of the rotating body 2 can be easily adjusted.

  As shown in FIG. 6, a guide portion 4 is provided at a substantially central portion of the arm portion 3. A chucking portion 73 is provided at a portion to which the guide portion 4 is attached, and the guide portion 4 is attached by the chucking portion 73. When the amount of protrusion of the guide portion 4 from the chucking portion 73 is adjusted, the tightening screw 74 of the chucking portion 73 is loosened, the position of the guide portion 4 is adjusted, and then the tightening screw 74 is tightened.

  The embodiment is not limited to the above. The braking surface 51 may not be provided on the braking ring 5, and when the braking ring 5 is not provided, the portion of the arm portion 3 or the adjustment member 6 that contacts the rotating body 2 may be used as the braking surface 51. Good.

  In addition to means for increasing or decreasing the weight of the rotating body 2, the weight of the fishing gear processing tool 1 may be changed to a rotating body 2 having a different weight.

  The thread fixing portion 27 of the rotating body 2 is not limited to the one using the annular elastic member 28, and for example, a bolt through a washer may be attached to the winding portion 21 of the rotating body 2. In this case, a wedge-shaped space is formed between the washer and the winding portion 21. A fishing line is wound around the bolt, the fishing line is clamped in a wedge-shaped space, and the tip of the fishing line is locked.

  Needless to say, the fishing gear processing tool 1 can be used not only when making a bobbin knot, but also for other purposes, for example, when manufacturing a fly fishing fly.

It is a front view of fishing tackle tool 1 concerning Example 1 of the present invention. 1 is an exploded view of a fishing gear processing tool 1. FIG. It is the side view seen from the A direction in FIG. It is the front view and side view of the rotary body 2. FIG. 3 is a front view of the fishing gear processing tool 1 in a state in which a main line 92 is wound around the winding portion 21 of the rotating body 2. It is a front view of the fishing tackle tool 1 which concerns on Example 2 of this invention. It is a table | surface which shows the rough standard of the weight of the fishing tackle tool 1 corresponding to the intensity | strength (number) of the main line 92, and resistance. 4 is a front view of a bobbin 81 and a bobbin holder 82. FIG. FIG. 6 is a front view of a bobbin 81 and a bobbin holder 82 around which a main line 92 is wound. FIG. 6 is a front view showing a procedure for making a bobbin knot using a bobbin 81 and a bobbin holder 82. FIG. 6 is a front view showing a procedure for making a bobbin knot using a bobbin 81 and a bobbin holder 82. FIG. 6 is a front view showing a procedure for making a bobbin knot using a bobbin 81 and a bobbin holder 82. FIG. 6 is a front view showing a procedure for making a bobbin knot using a bobbin 81 and a bobbin holder 82.

DESCRIPTION OF SYMBOLS 1 Fishing tool processing tool 2 Rotating body 21 Winding part 22 Friction surface 23 Weight accommodation space 24 Open end part 25 Weight 26 Shaft hole 27 Thread stop part 28 Annular elastic member 29 Anti-slip part 3 Arm part 31 Support shaft 32 Slit 33 Insertion Part 34 Guide part adjusting bolt 4 Guide part 41 Opening part 5 Brake ring 51 Brake surface 52 Through hole 6 Adjusting member 61 Knob part 71 Bolt 72 as supporting shaft 73 Wing nut 73 as adjusting member 73 Chucking part 74 Fastening screw 81 Bobbin 82 Bobbin holder 83 Conduit 84 Arm 92 Main line 93 as a fishing line Leader 93a Leader rear end

Claims (2)

A rotating body having a winding portion around which a fishing line is wound, an arm portion that rotatably supports the rotating body by a support shaft, and a position provided on the arm portion and spaced apart from the winding portion of the rotating body. A guide for guiding a fishing line, and a braking force adjustment for increasing or decreasing the frictional force generated in the rotating body by bringing the braking surface into contact with the rotating body and increasing or decreasing the pressure at the contact portion between the rotating body and the braking surface. A fishing tackle tool characterized by comprising:
The rotating body includes a weight accommodating space in which an open end is formed,
A weight that can be removably accommodated in the weight accommodating space from the open end; and
A fishing gear processing tool, comprising: a closing member that closes part or all of the open end portion. The fishing gear processing tool according to claim 1, wherein the opening of the guide portion can adjust a distance from the winding portion of the rotating body.

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