KR200493509Y1 - Calibration device for fishing hook - Google Patents

Abstract

The present invention relates to a fishing needle straightening device, as a fishing needle straightening device for restoring a plurality of needles arranged radially at the front end of the luer and bent rearward, and a front side correction groove is provided at the front end so that the needle is inserted. The first body is formed and has a rear correction groove formed at the rear end, and is coupled to the front end of the first body, and an auxiliary correction groove is formed at the front end so that the needle is inserted, and a winding groove is formed on the outer circumferential surface to enable winding of the fishing line It includes a second body to be formed.

Description

Fishing hook correction device{CALIBRATION DEVICE FOR FISHING HOOK}

The present invention relates to a fishing hook correction device, and in more detail, it is possible to collectively correct cephalopod fishing hooks, and fishing that can safely tow or break a fishing line when the needle is caught in rocks or plants during the fishing process. It relates to a needle straightening device.

In general, a fishing hook for capturing cephalopods is a tool used to capture squid, octopus, octopus, etc., and is installed on one side of a body having a shape such as a fish.

A large number of fishing needles for capturing cephalopods are arranged radially on the body, the ends of the needles are configured to be bent at a certain angle toward the top, and the cephalopods are caught at the ends of the needles.

When fishing hooks for capturing cephalopods are caught in underwater gravel or rocks, the needles are bent by external force and deviate from the original installation angle.In this case, the needles were discarded or a separate pliers tool was used to individually restore a number of needles.

However, in the related art, the process of manually restoring the deformed needle is cumbersome, and even if the needle is restored, the angle of the needle is not constant, so it is difficult to exhibit the original performance.

In addition, in the process of fishing, injuries were often injured in the process of pulling a fishing line to remove hooks caught in underwater rocks or plants. Therefore, it is possible to collectively restore the needle for capturing cephalopods, and there is a need for a technology capable of safely pulling or breaking the fishing line.

As a prior document related to the present invention, there is Korean Patent Registration No. 10-2012-0011895 (February 08, 2012), and the prior document discloses a fishing tackle for capturing cephalopods.

It is an object of the present invention to provide a fishing hook correction device that can collectively correct cephalopod fishing hooks, and that can safely tow or cut a fishing line when the needle is caught in rocks or aquatic plants during the fishing process.

The fishing needle correcting device of the present invention is a fishing needle correcting device for restoring a plurality of needles that are radially arranged at the front end of the luer, and one end is bent rearward, and a front correction groove is formed in the front end so that the needle is inserted. , A first body in which a rear correction groove is formed at the rear end, and is coupled to the front end of the first body, and an auxiliary correction groove is formed at the front end so that the needle is inserted, and a winding groove is formed on the outer circumferential surface to enable winding of the fishing line. It comprises a second body formed, and a non-slip pad is further coupled to the winding groove, the non-slip pad is coupled in a state surrounding the winding groove, characterized in that provided with an elastic material.

In addition, a coupling hole having a first screw thread formed on an outer circumferential surface is provided at the front end of the first body, and a second screw thread is formed on the outer circumferential surface so that the coupling hole is inserted male and female by a screw connection method at the rear end of the second body. A groove may be provided.

In addition, the inner circumferential surface of the front correction groove has a tapered shape whose diameter gradually decreases toward the rear, and the inner circumferential surface of the rear correction groove has a tapered shape whose diameter gradually decreases toward the front, and the auxiliary correction groove The inner circumferential surface of may have a tapered shape whose diameter gradually decreases toward the rear.

In addition, a first guide surface is formed along an edge at the entrances of the front-side correction groove and the rear-side correction groove, and the first guide surface goes from the inner circumferential surface of the front-side correction groove and the rear-side correction groove toward the entrance direction. It has a tapered or curved shape whose diameter gradually increases, and a second guide surface is further formed along the edge at the entrance of the auxiliary correction groove, and the second guide surface gradually increases in diameter toward the front from the inner circumferential surface of the auxiliary correction groove. It may have an increasing taper or curved shape.

In addition, the rear correction groove is formed in a number of steps based on the stepped portion to have a larger diameter toward the rear, the stepped portion is continuously formed along the inner circumferential surface of the rear correction groove, and the diameter gradually increases toward the rear. It can have a tapered shape that increases with.

The present invention restores the fishing hook for capturing cephalopods to its original shape through insertion and removal operation, thereby improving the convenience of use because the fishing hooks for capturing cephalopods can be collectively corrected, and a number of needles are fixed. Since it is restored at intervals of and, the quality of correction can be improved, and the deformed needle can be reused, thereby prolonging the use period.

In addition, the present invention provides a structure capable of traction while the fishing line is wound on the outside, so that the fishing line can be safely towed or cut off when the needle is not caught in rocks or plants during the fishing process.

1 is an exploded perspective view showing a fishing hook correction device according to the present invention.
Figure 2 is a combined perspective view for showing a fishing hook correction device according to the present invention.
Figure 3 is a side view of the first body and the second body separated from the first body and the second body of the fishing hook correction device according to the present invention.
Figure 4 is a side view of a first body and a second body combined with the fishing hook correction device according to the present invention.
Figure 5 is a side cross-sectional view of the first body and the second body separated from the fishing hook correction device according to the present invention.
Figure 6 is a side cross-sectional view of the first body and the second body of the fishing hook correction device according to the present invention combined.
7 is a use state diagram showing a state in which a fishing needle is inserted into the first body of the fishing needle correcting device according to the present invention.
Figure 8 is a use state diagram showing a state in which a fishing needle is inserted into the second body of the fishing needle correcting device according to the present invention.
Figure 9 is a side cross-sectional view for showing a state in which the guide groove is formed in the correction groove of the fishing hook correction device according to the present invention.
Figure 10 is a side cross-sectional view for showing a state in which a locking groove is formed in the winding groove of the fishing hook straightening device according to the present invention.

Hereinafter, preferred embodiments according to the present invention will be described in detail with reference to the accompanying drawings.

Advantages and features of the present invention, and a method of achieving the same will become apparent with reference to the embodiments described below in detail together with the accompanying drawings.

However, the present invention is not limited by the embodiments disclosed below, but will be implemented in various different forms, only the present embodiments are intended to complete the disclosure of the present invention, and common knowledge in the technical field to which the present invention pertains. It is provided to completely inform the scope of the invention to those who have, and the invention is only defined by the scope of the claims.

In addition, in describing the present invention, when it is determined that related known technologies may obscure the gist of the present invention, a detailed description thereof will be omitted.

1 is an exploded perspective view for showing a fishing hook correction device according to the present invention, Figure 2 is a combined perspective view for showing a fishing hook correction device according to the present invention, Figure 3 is a fishing hook correction device according to the present invention It is a side view of the first body and the second body separated.

Figure 4 is a side view of a first body and a second body combined with the first body and the second body of the fishing hook straightening device according to the present invention, Figure 5 is a side cross-sectional view of the first body and the second body separated from the fishing needle straightening device according to the present invention 6 is a side cross-sectional view of a first body and a second body of the fishing hook correction device according to the present invention combined.

7 is a use state diagram showing a state in which a fishing needle is inserted into the first body of the fishing needle correcting device according to the present invention, and FIG. 8 is a fishing needle inserted into the second body of the fishing needle correcting device according to the present invention. It is a usage state diagram to show the ordered state.

9 is a side cross-sectional view for showing a state in which a guide groove is formed in the correction groove of the fishing hook straightening device according to the present invention, and FIG. 10 is a state in which a locking groove is formed in the winding groove of the fishing hook straightening device according to the present invention. It is a side cross-sectional view to show

The fishing hook correction device according to the present invention is used to correct cephalopod fishing hooks such as squid and octopus, which have legs (arms) on their heads among mollusks without spine, soft body, and no segments. .

1 to 10, the fishing hook correction device according to the present invention is a fishing hook straightening device for restoring a plurality of needles that are radially arranged at the front end of the luer, and one end is bent rearward, as a first body ( 100) and, and includes a second body (200).

The first body 100 has a shape (such as a cylinder) that the user can hold by hand, and can be made of a metal (such as stainless steel) that is not easily corroded by moisture or salt. A front side correction groove 110 is formed at the front end of the first body 100 so that the fishing needle 11 can be inserted, and a rear side correction groove 120 is formed at the rear end.

The front correction groove 110 has an inner circumferential surface along the side so that a plurality of radially arranged needles 11 can be inserted, and the depth of the front correction groove 110 can be applied in various ways as necessary. Do.

The front-side correction groove 110 may have a diameter of approximately 12 to 17mm, and the inner circumferential surface of the front-side correction groove 110 may have a tapered shape whose diameter gradually decreases toward the rear.

For example, when the needle 11 of the luer 10 is pushed into the front correction groove 110, the side of the needle 11 arranged radially slides in close contact with the inner circumferential surface of the correction groove 110 Then, one side of the needle 11 is restored to its original shape while being narrowed in a direction facing each other. That is, since the needle 10 is gradually restored to its original shape as long as it is inserted, the needle 11 can be inserted or separated without exerting a large force.

In addition, a first guide surface 130 may be further formed along the edge at the entrance of the front-side correction groove 110, and the first guide surface 130 has a diameter toward the front from the inner circumferential surface of the front-side correction groove 110. It may have a tapered shape or a curved shape that gradually increases.

When inserting the needle 11 into the front correction groove 110, the first guide surface 130 guides the side of the needle 11 into the front correction groove 110. That is, since the entrance portion of the front-side correction groove 110 is formed relatively wide by the first guide surface 130, the needle 11 can be easily inserted into the front-side correction groove 110.

In addition, a concave guide groove 180 may be arranged in a state spaced apart along the side so that a plurality of needles 11 are correspondingly inserted into the inner circumferential surface of the front correction groove 110 as shown in FIG. 9. The guide groove 180 may have a length in the front and rear direction, may have a shape corresponding to the side of the needle 11, and may have a number corresponding to the needle 11.

The guide groove 180 formed in the front correction groove 110 has a function of holding the needle 11 so that it does not flow in the width direction, so that the needle 11 is inserted into the front correction groove 110. It can prevent lateral twisting in the process. That is, the needle 11 can be restored to its original shape while maintaining a predetermined interval.

The rear correction groove 120 is formed to be concave so that the needle 11 is inserted, and describes the open entrance of the rear correction groove 120 to the rear of the first body 100, and the rear correction groove ( The insertion direction of 120) will be described in the forward direction.

The rear-side correction groove 120 has an inner peripheral surface circumferentially along the side so that a plurality of radially arranged needles 11 can be inserted, and the rear-side correction groove 120 may have a diameter of approximately 20mm. The inner circumferential surface of the rear correction groove 120 may have a tapered shape whose diameter gradually increases toward the rear.

For example, when the needle 11 of the luer 10 is pushed into the rear correction groove 120, the side of the needle 11 arranged radially is in close contact with the inner circumferential surface of the rear correction groove 120 It is slid into, and one side of the needle 11 is restored to its original shape while being narrowed in a direction facing each other. That is, since the needle 10 is gradually restored to its original shape as long as it is inserted, the needle 11 can be inserted or separated without exerting a large force.

And, at the entrance of the rear correction groove 120, a first guide surface 130 may be further formed along the edge, and the first guide surface 130 has a diameter toward the rear from the inner circumferential surface of the rear correction groove 120 It has a tapered or curved shape that gradually increases.

The second guide surface 130 guides the side of the needle 11 to the inside of the rear correction groove 120 when inserting the needle 11 into the rear correction groove 120. That is, since the entrance portion of the rear correction groove 120 is formed relatively wide by the second guide surface 130, the needle 11 can be easily inserted into the rear correction groove 120.

In the inner circumferential surface of the rear-side correction groove 120, a concave guide groove 180 may be arranged in a state spaced apart along the side so that a plurality of needles 11 are correspondingly inserted as shown in FIG. 9, and the guide groove 180 is front and rear. It can have a length in any direction. The guide groove 180 may have a shape corresponding to the side of the needle 11 and may have a number corresponding to the needle 11.

In addition, since the guide groove 180 has a function of holding the needle 11 so that it does not flow in the width direction, the needle 11 is prevented from being twisted laterally in the process of being inserted into the rear side correction groove 120 can do. That is, the needle 11 can be restored to its original shape while maintaining a predetermined interval.

In addition, the rear-side correction groove 120 may have a plurality of rear-side correction grooves 120 stepped in the front and rear directions relative to the stepped portion 140 so as to have a larger diameter toward the rear, and the stepped portion 140 ) Can be processed into a larger diameter of the rear correction groove 120 located at the rear.

Here, the stepped portion 140 may be continuously formed along the inner circumferential surface of the rear correction groove 120, and the stepped portion 140 may have a tapered shape whose diameter gradually increases toward the rear.

In addition, a coupling hole 170 having a first screw thread 171 formed on an outer circumferential surface of the first body 100 may protrude from the front end of the first body 100. The coupler 170 is a part that is coupled to the coupling groove 201 of the second body 200 to be described later in a male and female manner, and is coupled to the coupling groove 201 to be described later in a screwing manner.

Therefore, since the rear correction groove 120 is formed with a plurality of diameters along the insertion and separation direction, it can be used to correct the needle 11 of various standards, and the insertion direction of the stepped portion 140 is the rear correction groove Since it is formed to be inclined in the direction of the center of the 120, it is possible to prevent the phenomenon that the needle 11 is caught by the stepped portion 140 and is not inserted when the needle 11 is inserted into the rear correction groove 120.

In addition, a non-slip protrusion 150 may be further provided on the outer circumferential surface of the first body 100, and a hook 160 for connecting the connecting member 30 to the outside of the first body 100 is further provided. Can be.

The non-slip protrusion 150 protrudes from the outer circumferential surface of the first body 100 and may be formed along the circumference of the first body 100, and a plurality of the anti-slip protrusions 150 may be arranged in a spaced state along the front and rear directions, and a plurality of The protrusions of the can be arranged alternately to form a grid.

Since the anti-slip protrusion 150 increases the frictional force when the user grips with the hand, it is possible to prevent the first body 100 from being separated from the hand during the calibration process of the needle 11.

The hook portion 160 is formed on a side or rear surface of the first body 100, and a connection hole 161 is formed through the hook portion 160 so that the connection member 30 passes. The connection member 30 may use a clip that can be mounted on clothes, bags, etc., and the connection ring of the connection member 30 is passed through the connection hole 310 to surround the outside of the hook 160 Can be combined with

The second body 200 is a metal (such as stainless steel) that is coupled to the front end of the first body 100 and has a shape (such as a cylinder) that the user can grasp by hand, and is not easily corroded by moisture or salt. Can be produced with. Here, the front side correction groove 110 is formed at the front end of the first body 100 so that the fishing needle 11 can be inserted, and the rear side correction groove 120 is formed at the rear end.

In addition, the secondary correction groove 210 is formed concave so that the needle 11 is inserted at the front end of the second body 200, and a winding groove to enable winding of the fishing line 20 on the outer circumferential surface of the second body 200 230 is formed concave.

The auxiliary correction groove 210 has an inner circumferential surface formed circumferentially along the side so that a plurality of radially arranged needles 11 can be inserted, and the depth of the auxiliary correction groove 210 can be variously applied as needed.

Here, the auxiliary correction groove 210 may have a diameter of approximately 12 to 20mm, and the inner circumferential surface of the auxiliary correction groove 210 may have a tapered shape whose diameter gradually decreases toward the rear.

And, at the entrance of the auxiliary correction groove 210, a second guide surface 220 is further formed along the edge, and the second guide surface 220 gradually increases in diameter from the inner circumferential surface of the auxiliary correction groove 210 to the front. It has a tapered shape or a curved shape.

In addition, a concave guide groove 260 may be arranged in a state spaced apart along the side so that a plurality of needles 11 are inserted correspondingly as shown in FIG. 9 on the inner circumferential surface of the auxiliary correction groove 210, and the guide groove 260 is It can have a length in the front-rear direction. The guide groove 260 may have a shape corresponding to the side of the needle 11 and may have a number corresponding to the needle 11.

Since the guide groove 260 has a function of holding the needle 11 so that it does not flow in the width direction, it is possible to prevent the needle 11 from twisting laterally in the process of being inserted into the auxiliary correction groove 210. . That is, the needle 11 can be restored to its original shape while maintaining a predetermined interval.

In addition, at the rear end of the second body 200, a coupling groove 250 is formed to be concave so that the coupling hole 170 can be combined male and female, and the coupling hole 170 is formed on the inner circumferential surface of the coupling groove 201. A second screw thread 251 is formed to be coupled to the first screw thread 171 by a screwing method.

That is, while rotating the coupling hole 170 of the first body 100 in the coupling direction, the coupling groove 250 of the second body 200 is coupled, or the first body 100 is coupled to the coupling direction in a direction opposite to the coupling direction. It can be separated from the coupling groove 250 of the second body 200 while rotating by.

Here, an anti-slip pad 240 using an elastic material such as rubber is further coupled to the winding groove 210. The non-slip pad 240 may be coupled in a state surrounding the winding groove 210.

At this time, the non-slip pad 240 may wrap the winding groove 230 in a corresponding shape, but both ends of the non-slip pad 240 in the front-rear direction extend longer than both ends of the winding groove 230 in the front-rear direction. The outside of the second body 200 may be additionally wrapped.

In addition, the outer circumferential surface of the non-slip pad 240 may form a horizontal surface, but a portion surrounding the winding groove 230 may be inserted deeper to be formed concave, and a separate outer circumferential surface of the non-slip pad 240 It is also possible to form grooves or protrusions.

For example, in the fishing process, when the fishing hook 11 is caught in stone or water, etc. and does not fall out, a plurality of fishing lines 20 are wound on the outer circumferential surface of the non-slip pad 240, and then the second body 200 is pulled. You can pull out the fishing hook 11 or break the fishing line 20 by pulling in the direction.

At this time, the fishing line 20 can be firmly wound without being separated from the front of the second body 200 by the frictional force of the non-slip pad 240, forming a groove on the outer circumferential surface of the non-slip pad 240 If the fishing line 20 can be wound more firmly.

Meanwhile, a locking groove 231 may be concavely formed on the outer circumferential surface of the winding groove 230 as shown in FIG. 10. The locking groove 231 may be continuously formed along the circumference of the winding groove 230, and one or more may be arranged in a state spaced apart along the front and rear directions of the winding groove 230.

The locking groove 231 can generate a friction force so that the anti-slip pad 240 is not separated to the outside of the winding groove 230 by an external force, and a part of the non-slip pad 240 is inserted into the locking groove 231 It is possible to wrap the winding groove 230 in the state. At this time, the outer circumferential surface of the anti-slip pad 240 may be formed to be concave by inserting a deeper portion surrounding the locking groove 231.

For example, in the case of towing or cutting the fishing line 20, the user combines the first body 100 and the second body 200, and prevents slipping while holding the first body 100 by hand. The fishing line 20 of the pad 240 is wound. Thereafter, the second body 200 may be pulled in the traction direction to remove the fishing hook 11 or cut the fishing line 20.

At this time, the anti-slip pad 240 is not easily separated from the winding groove 230 by the locking groove 231, and a friction force acts between the anti-skid pad 240 and the fishing line 20, so the fishing line 20 The non-slip pad 240 may be firmly fixed without being separated from the outside.

As a result, the present invention restores the fishing hook for capturing cephalopods to its original shape through insertion and removal operations, so that the fishing hook 11 for capturing cephalopods can be collectively corrected, thereby improving the convenience of use, Since the plurality of needles 11 are restored to a predetermined shape and interval, the calibration quality can be improved, and the modified needle can be reused, thereby extending the use period.

In addition, the present invention provides a structure capable of traction while the fishing line 20 is wound outside, so that the fishing line can be safely towed or cut when the needle 11 is caught in rocks or plants during the fishing process. have.

Until now, a specific embodiment of the fishing hook correction device according to the present invention has been described, but it is obvious that various implementation modifications are possible within the limit not departing from the scope of the present invention.

Therefore, the scope of the present invention is limited to the described embodiments and should not be transmitted, and should be determined by the practical claims and equivalents as well as the utility claims to be described later.

That is, the above-described embodiments are illustrative in all respects and should be understood as not limiting, and the scope of the present invention is indicated by the practical claims to be described later rather than the detailed description, and the meaning and scope of the practical claims and All changes or modified forms derived from the equivalent concept should be interpreted as being included in the scope of the present invention.

10: luer 11: needle
20: fishing line 30: connecting member
100: first body 110: front correction groove
120: rear correction groove 130: first guide surface
140: stepped portion 150: non-slip protrusion
160: hook 161: connection hole
170: coupling hole 171: first thread
180: guide groove 200: second body
201: coupling groove 210: auxiliary correction groove
220: second guide surface 230: winding groove
231: locking groove 240: non-slip pad
250: coupling groove 251: second thread
260: guide groove

Claims (5)

As a fishing hook straightening device for restoring a plurality of needles arranged radially at the front end of the luer and bent rearward at one end,
A first body in which a front side correction groove is formed at a front end and a rear side correction groove is formed at a rear end so that the needle is inserted; And
Includes; a second body coupled to the front end of the first body, the auxiliary correction groove is formed in the front end so that the needle is inserted, and the winding groove is formed to enable winding of the fishing line on the outer circumferential surface; and
An anti-slip pad is further coupled to the winding groove, and the anti-slip pad is coupled in a state surrounding the winding groove, and is provided with an elastic material,
A coupling hole having a first screw thread formed on an outer circumferential surface is provided at the front end of the first body, and a coupling groove having a second screw thread formed on the outer circumferential surface is provided at the rear end of the second body so that the coupling hole is inserted male and female by a screwing method. Equipped,
The inner circumferential surface of the front correction groove has a tapered shape whose diameter gradually decreases toward the rear, the inner circumferential surface of the rear correction groove has a tapered shape gradually decreases in diameter toward the front, and the inner circumferential surface of the auxiliary correction groove Has a tapered shape whose diameter gradually increases toward the rear,
In the inner circumferential surface of the front-side correction groove, concave guide grooves are arranged to be spaced apart along the side so that the needle is inserted correspondingly, and the guide groove has a length in the front and rear direction,
In the inner circumferential surface of the auxiliary correction groove, concave guide grooves are arranged in a state spaced apart along the side so that the needle is inserted correspondingly, and the guide groove has a length in the front and rear direction,
A locking groove is formed concave on the outer circumferential surface of the winding groove, the locking groove is continuously formed along the circumference of the winding groove, and at least one is arranged in a state spaced apart along the front and rear directions of the winding groove. Fishing hook correction device. delete delete The method of claim 1,
A first guide surface is formed along an edge at the entrance of the front-side correction groove and the rear-side correction groove, and the first guide surface has a diameter from the inner circumferential surface of the front-side correction groove and the rear-side correction groove toward the entrance direction. Has a tapered or curved shape that gradually increases,
A second guide surface is further formed along the edge at the entrance of the auxiliary correction groove, and the second guide surface has a tapered or curved shape whose diameter gradually increases from the inner circumferential surface of the auxiliary correction groove to the front. Calibration device. The method of claim 1,
The rear correction groove is formed in a number of steps with respect to the stepped portion so as to have a larger diameter toward the rear,
The stepped portion is continuously formed along the inner circumferential surface of the rear-side correction groove, and the fishing needle straightening device, characterized in that the tapered shape gradually increases in diameter toward the rear.

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