KR100330836B1 - Reverse rotation control structure of spooling reel for fishing - Google Patents

Abstract

The present invention relates to a spinning reel for fishing, comprising a circular bearing block having a plurality of bearing pins in a rotor and a rotating ring for rotating a stop ring and a bearing block having a plurality of inclined grooves inserted into an outer circumference of the bearing block. By forming the combination, the bearing block is rotated together by the rotation of the lever that rotates the rotating plate so that a plurality of bearing pins are inserted into the inclined grooves of the stop ring, so that the forward rotation is possible while the inclined grooves allow reverse rotation. And reverse rotation control of the spinning reel for fishing that smoothly and firmly controls the reverse rotation while freely adjusting and changing the rotation direction of the rotor according to the fish species by changing the state to enable the forward and reverse rotation by returning the lever again. It's about structure.

Description

Reverse rotation control structure of spooling reel for fishing}

The present invention relates to a spinning reel for fishing, and more particularly, to enable forward and reverse rotation of the rotor by the lever, as well as to rotate the lever to easily brake the reverse rotation of the rotor by the brake means inside the rotor. It relates to a structure for preventing the reverse rotation of the spinning reel.

Generally, the spinning reel for fishing is a spool 2 which reciprocates back and forth with respect to the reel main body 1, this reel main body 1, and the rotor which rotates with respect to the reel main body 1, as shown in FIG. (3), an arm lever (4) having rear ends fixed to both sides of the outer circumferential surface of the rotor (3), a substantially semi-circular bale arm (5) provided at the distal end of the arm lever (4), and one arm lever (4). When the handle (not shown) rotates the handle (not shown in the drawing), which is composed of a line roller assembly 6 installed between the distal end of the bale arm and one side end of the bale arm 5, the spool 2 It is reciprocated back and forth without rotating, while the rotor (3), the arm lever (4) and the bale arm (5) is rotated, the fishing line (7) is wound around the spool (2).

The front end of the spool 2 is coupled to the drag knob 8 to adjust the tightening force to prevent the fishing line is broken by the rotation of the spool 2 when a tension of a predetermined set force or more acts on the fishing line.

When the fishing reel is caught by the spinning reel, the fishing line must be reeled and unrolled in order to easily catch the fishing reel. This is a method of manipulating the handle in a state in which forward and reverse rotation are possible and only forward rotation by the handle is possible. In this state, the drag knob installed at the tip of the spool is released to some extent to lower the tightening force, and when a predetermined tension acts on the fishing line, the spool is reversely rotated so that the fishing line is automatically released.

However, in the reeling method as described above, reeling in a state in which forward and reverse rotations are possible is difficult for beginners because it requires a high level of skill, and even a skilled person may have a tension in a fishing line delivered by a fish. May not be able to respond quickly to

The method of spool unwinding without reverse rotation is troublesome to adjust the drag knob according to the size of the fish, and there is a problem such as resetting the tightening force of the drag knob during reeling after setting the drag knob.

SUMMARY OF THE INVENTION The present invention has been made to eliminate the above problems, and includes a circular bearing block having a plurality of bearing pins inside a rotor and a stop ring and bearing block having a plurality of inclined grooves inserted into an outer circumference of the bearing block. By combining the rotating plate for rotating the rotating plate, the bearing block is rotated together by the rotation of the lever for rotating the rotating plate so that a plurality of bearing pins are inserted in the inclined groove of the stop ring, the forward rotation is possible by the inclined groove Spinning reel for fishing that prevents reverse rotation and prevents reverse rotation, while reversing the lever to enable forward and reverse rotation, while freely adjusting and changing the rotation direction of the rotor according to fish species. It is an object of the present invention to provide a reverse rotation control structure of.

Still another object of the present invention is to completely suppress the noise generated by the plurality of bearing pins in the bidirectional rotation or the one-way rotation by the double rotating plate, and the bearing pins work smoothly even during the reverse control as well as the noise suppression. It is another object of the present invention to provide a reverse rotation control structure of the spinning reel for fishing that can control the reverse direction.

1 is an exploded perspective view of the present invention spinning reel

Figure 2 is an enlarged perspective view of the main part of the reverse rotation control apparatus of the present invention spinning reel

Figure 3 is a sectional explanatory view of the main part of the reverse rotation control apparatus of the present invention spinning reel

4a to 4b are explanatory views of the operation of the reverse rotation control apparatus of the present invention.

Figure 4a is a one-way rotation operation state,

Figure 4b is an explanatory view of the main portion showing the bidirectional rotation operation state

5a to 5d is a detailed operation diagram of the reverse rotation control apparatus of the present invention,

Figure 5a is a position chart of the pin rotating plate at the time of bidirectional rotation

Figure 5b is a detailed view of the position of the rotating plate and the bearing pin in the bidirectional rotation

Figure 5c is a position chart of the pin rotating plate when rotating in one direction

Figure 5d is a detailed view of the position of the rotating plate and the bearing pin in one direction rotation

6 is an overall explanatory diagram of a conventional fishing spinel reel;

Explanation of symbols on the main parts of the drawings

10: eccentric shaft 11: spring

12: bush 13,13 ': bearing pin

14: bearing block 15,15 ': groove

16: stop ring 17,17 ': groove

18: protrusion 19: rotating plate

20: reel unit 21: rotation axis

22: rotor 23: spool

24: handle

Hereinafter, embodiments of the present invention will be described with reference to the accompanying drawings.

1 is an overall perspective view showing a reverse rotation prevention structure of the spinning reel for fishing of the present invention, Figure 2 is an enlarged perspective view showing the main portion showing the reverse rotation control means.

The rotating shaft 21 protrudes in the center of one side of the reel main body 20, the rotor 22 and the spool 23 are inserted into the handle 24, and the handle 24 for rotating the electric rotating shaft 21 on the side of the reel main body 20. In the usual spinning reel of

A pipe-like bush 12 is interlocked to the rotating shaft 21, and a plurality of bearing pins 13 and 13 'protrude in and out on the outer circumferential surface thereof to engage a bearing block 14 rotatably inserted. On the outer circumferential surface of the bearing block 14 engages a ring-shaped stop ring 16 formed with inclined grooves 15 and 15 'at a position opposite to each bearing pin 13, 13',

A plurality of bearing pins 13, 13 ′ protrude to one side of the bearing block 14, and grooves 17, 17 ′ facing the respective bearing pins 13, 13 ′ are formed therein. One side of the rotating plate 19 formed with a 'U'-shaped projection 18 is formed, the' U'-shaped projection 18, the eccentric shaft 10 of the lever 9 rotatably coupled to the reel main body 20 ) Is to be kept.

Incidentally, the inclined grooves 15 and 15 'of the stop rings 16 and 16' are inserted into and sequentially inserted into the bearing block 14, respectively. ) Can be configured to match the bearing pins 13 and 13 ′, which are classified into large and small,

In addition, the above-mentioned stop ring 16 may be divided into a plurality of insertion inserts,

The lever 9 may be configured such that the reel main body 20 and the spring 11 are collided so that the lever 9 is always positioned to one side.

In addition, the former rotating plate 19 is formed in front and rear double, a plurality of grooves (17, 17 ') formed on one side of the rotating plate 19, the inclined wedges (30, 30') is formed,

The eccentric shaft 10 of the lever 9 forms an eccentric ellipse in the shape thereof, and forms a stepped front and rear, so that the tip portion 9 'having a large diameter is the protrusion 18 of the tip rotating plate 19. And the rear end portion 9 'having a small diameter is inserted into the protrusion 18' of the rear end rotating plate 19 'so as to be rotated by the rotation of the eccentric shaft 10, respectively. 19 ') is formed to be set differently.

Referring to the operation of the present invention by the above configuration in more detail by the accompanying drawings as follows.

As shown in FIG. 3, a pipe-like bush 12 is inserted into the rotating shaft 21, and a plurality of bearing pins 13 and 13 ′ are inserted into the bearing block 14 on the outer circumferential surface of the bush 12 to abut. It is.

In addition, the outer side of the bearing pins 13, 13 'is located in the inclined grooves 15, 15' formed inside the separate stop ring 16.

In addition, the plurality of bearing pins 13 and 13 'protrude to one side of the bearing block 14, and the rotating plate 19 having a plurality of opposing grooves 17 and 17' is inserted therein.

Since the eccentric shaft 10 of the lever 9 is inserted into the 'U'-shaped protrusion 18, the rotating plate 19 is eccentrically rotated by the rotation of the lever 9. Since the rotational movement of the eccentric shaft 10 rotates the rotating plate 19, the bearing pins 13 and 13 'as well as the bearing block 14 are rotated.

The rotation of the bearing block 14 is to fix or freely set the bearing pins 13 and 13 'in the inclined grooves 15 and 15' of the stop ring 16,

As shown in FIG. 4A, when the lever 9 is rotated downward in the drawing, the rotating plate 19 is rotated together by the eccentric shaft 10 and the bearing pins 13 and 13 inserted into the grooves of the rotating plate 19. ') Is to rotate together.

In addition, the bearing block 14 rotates together and rotates the plurality of bearing pins 13, 13 'and the bearing pins 13 in the narrow section of the inclined grooves 17, 17' of the stop ring 16. Move 13 '.

In this state, the rotational direction of the rotary shaft 21 is free in the opposite direction of rotation of the lever 9, but in the rotational direction, the bearing pins 13, 13 'and the inclined grooves 15, 15'. ) And the bearing pins 13 and 13 'are in a state where the rotating shaft 21 cannot rotate.

Therefore, the rotor 22 which rotates together with the rotation shaft 21 by the reverse rotation control of the rotation shaft 21 is also capable of forward rotation but reverse rotation.

Therefore, the user can easily control the reverse rotation of the rotor 22 by the rotation of the lever 9.

In addition, as shown in FIG. 4B, when the lever 9 is rotated upward in the drawing again, the eccentric shaft 10 rotates the protrusion 18 of the rotating plate 19 so that the rotating plate 19 rotates. By the rotation of the rotating plate 19, the plurality of bearing pins 13, 13 'and the bearing block 14 rotate together.

Therefore, the bearing pins 13 and 13 'which are located in the narrow section of the inclined groove 15 and 15' in the stop ring 16 are located in the wider inclined groove section, so that the rotation of the rotary shaft 21 is performed. It will not interfere at all.

Therefore, the rotor 22 which cooperates with the rotating shaft 21 can rotate freely in both the forward rotation and the reverse rotation.

Here, the aforementioned bearing pins 13 and 13 'are formed in large and small sizes, and the inclined grooves 17 and 17' in the stop ring 16 are also divided into large and small bearing pins 13 and 13 '. As a result, the bearing pins 13, 13 'and the inclined grooves 17, 17' can be stepwise controlled in the reverse direction, and the same bearing pins 13, 13 are formed. ') Is formed to have a more robust and smooth effect of controlling the reverse rotation.

If the stop ring 16 is divided into a plurality of inserts and inserted into the same shape, even if one stop ring 16 is damaged due to excessive rotation, the rotor 22 is separated by another divided stop ring 16. Prevent reverse rotation,

By mounting the lever 9 and the reel main body 20 rotatably coupled to the reel main body 20 with the springs 11, the lever 9 is always directed to one side, thereby preventing the reverse or reverse rotation operation. Therefore, the lever 9 is always positioned in the forward and reverse direction, and when the user wants to control the reverse rotation as necessary, the lever 9 is rotated so as not to reverse rotation for a predetermined time, and then reverse rotation again. If you want to release the control by removing the pressing force of the lever 9 may be to be returned to the original position by the spring (11).

In addition, the lever 9 rotatably inserted into the reel main body 20 and the eccentric shaft 10 protruding from the tip portion thereof and inserted into the protruding portion 18 of the rotating plate 19 are formed in an eccentric elliptical shape. The elliptical eccentric shaft 10 further increases the rotational movement of the rotating plate 19 to enable more reliable forward and reverse rotation and one-way rotation.

A front and rear step is formed on the eccentric elliptical shaft 10 in its eccentric shape, and is divided into a front end portion 9 'with a larger diameter and a rear end portion 9' with a smaller diameter, and the rotary plate 19 inserted therein is moved forward and backward. Separating and inserting, the front rotary plate 19 and the rear rotary plate 19 'are separately formed so that the protrusions 18 and 18' of the rotary plate are each eccentric shaft 10 leading end 9 'and rear end 9'. Insert into)

As shown in FIGS. 5A to 5B, when the lever 9 is rotated to allow bidirectional rotation, the rotating plates 19 and 19 ′ separated and separated by the eccentric shaft 10 are simultaneously rotated. The rotational movement amounts of the respective rotating plates 19 and 19 'are different from each other by the front end portion 9 and the rear end portion 9' formed on the stepped portion 10).

Therefore, the tip portion 9 'having a larger diameter increases the amount of movement of the tip rotating plate 19, so that the inclined wedges 30 and 30' formed on one side of the grooves 17 and 17 'of the tip rotating plate 19 are larger. ) Is drilled into the lower portion of the bearing pins 13 and 13 'and separates the bearing pins 13 and 13' from the rotational shaft 21.

That is, even after the rear end rotating plate 19 'is rotated by a predetermined amount, the front end rotating plate 19 is further rotated by a predetermined amount so that the wedges 30 and 30' are moved toward the bearing pins 13 and 13 'by the amount of rotation. As it rotates, the bearing pins 13 and 13 'are raised by the inclined wedges 30 and 30'.

Accordingly, the bearing pins 13 and 13 ', which are located in the inclined grooves 15 and 15' of the rotating shaft 21 and the stop ring 16 during forward and reverse rotation, are double rotating plates 19 and 19. ') And the inclined wedges (30) and (30'), there is no flow, as well as separated from the rotary shaft 21, so that the bidirectional rotation of the rotary shaft 21 is smooth, while the rotary shaft 21 and the bearing pin 13 ( 13 ') has no friction and smoother and smoother rotation, as well as no noise during rotation.

5C to 5D, when the reverse rotation is controlled, the front end portion 9 'and rear end portion 9' formed on the eccentric shaft 10 together with the rotation of the lever 9 are rotated plate ( 19) 19 'is rotated, and the amount of rotational movement of the front end plate 19 and the rear end plate 19' is increased by the front end 9 'and the rear end 9',

Since the amount of rotation of the front end rotating plate 19 and the amount of rotation of the rear end rotating plate 19 'coincide with the front end 9' and the rear end 9 'of the eccentric shaft 10 formed eccentrically, the wedges 30, 30 The bearing pins 13 and 13 ', which have been raised by' ', are lowered and fitted into the inclined grooves 15 and 15' of the rotating shaft 21 and the stop ring 16, so that the rotating shaft 21 is reversely rotated. In this case, since the bearing pins 13 and 13 'are supported, reverse rotation is controlled.

In addition, since the bearing pins 13 and 13 'are smoothly and naturally escaped by the inclined wedges 30 and 30', smooth and reliable reverse rotation control is possible.

The above-described anti-rotation structure of the spinning reel for fishing of the present invention is not only very easy to control the reverse rotation but also the control of the reverse rotation is very smooth and noise is not generated.

The reverse rotation prevention structure of the spinning reel for fishing according to the present invention by the above action is that the reverse rotation is controlled more smoothly and firmly while freely adjusting and changing the rotation direction of the rotor according to the fish species.

Claims (5)

The rotating shaft 21 protrudes in the center of one side of the reel main body 20, the rotor 22 and the spool 23 are inserted into the handle 24, and the handle 24 for rotating the electric rotating shaft 21 on the side of the reel main body 20. In the usual spinning reel of A pipe-like bush 12 is interlocked to the rotating shaft 21, and a plurality of bearing pins 13 and 13 'protrude in and out on the outer circumferential surface thereof to engage a bearing block 14 rotatably inserted. On the outer circumferential surface of the bearing block 14 engages a ring-shaped stop ring 16 formed with inclined grooves 15 and 15 'at a position opposite to each bearing pin 13, 13', A plurality of bearing pins 13, 13 ′ protrude to one side of the bearing block 14, and grooves 17, 17 ′ facing the respective bearing pins 13, 13 ′ are formed therein. One side of the rotating plate 19 formed with a 'U'-shaped projection 18 is formed, the' U'-shaped projection 18, the eccentric shaft 10 of the lever 9 rotatably coupled to the reel main body 20 The spinning reel control structure of the spinning reel for fishing, characterized in that (). 2. The inclined groove 15 of the stop ring 16, 16 'is inserted into the bearing block 14, respectively, in order to separate the bearing pins 13 and 13', respectively. Spinning control structure of the spinning reel for fishing, characterized in that formed in accordance with the large and small bearing pins (13, 13 ') of the (15'). The spinning reel control structure for fishing spinning reels according to claim 1, characterized in that a plurality of stop rings (16) are inserted and inserted. The spinning reel control structure of a fishing reel as set forth in claim 1, wherein the lever (9) is installed in the reel unit (20) and the spring (11) so that the lever (9) is always positioned to one side. According to claim 1, wherein the rotating plate 19 is divided into two front and rear, a plurality of grooves (17, 17 ') formed on one side of the rotating plate 19, the inclined wedges (30, 30') is formed and, The eccentric shaft 10 of the lever 9 forms an eccentric ellipse in its shape, and forms a stepped front and rear, so that the tip portion 9 'having a large diameter is the protrusion 18 of the tip rotating plate 19. And the rear end portion 9 'having a small diameter is inserted into the protrusion 18' of the rear end rotating plate 19 'so as to be rotated by the rotation of the eccentric shaft 10, respectively. 19 ') rotational control structure of the spinning reel for fishing, characterized in that the coupling amount is formed differently.