JP2005087163A - Oscillating type lure - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an oscillating type lure made as a small size and light weight, and also improved with its operating property. <P>SOLUTION: This oscillating type lure is provided by installing a box body 15 building-in an oscillation-generating device 11 imparting an oscillating motion and a battery 13 for supplying electric power to the oscillation-generating device 11 as waterproof in a lure body 3 of the oscillating type lure 1. Also, a floating force-generating body 19 for generating the floating power for the lure main body 3 is installed in the lure body 3. Since the lure main body 3 is floated on the surface of water by the floating power-generating body 19, on oscillating the oscillation-generating device 11 in this state, waves are generated on the surface of water and an objective fish bites the oscillating type lure 1 attracted by the wave. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

  The present invention relates to a lure as a fishing tackle, and more particularly to a vibratory lure provided with an electric vibration generator for applying vibration to a lure body.

  Set a reel on the lure rod, tie a fishing line to the lure and cast (throw the lure). Next, when the fishing line is taken up by the reel (referred to as “retrieve”), the lure receives various hydraulic pressures and moves in various ways. The movement and vibration of this lure is believed to cause the fish to bite the lure by mistake with food or enemies.

  In a conventional lure, there is a transparent plastic plate called a lip on the head of a lure shaped like a small fish, and when retrieved, the lip is devised to submerge under the water pressure and actively move up and down. Yes. This type of lure has a configuration in which a space is provided inside the lure and a weight such as lead moves in the space to freely move the center of gravity of the lure itself in order to obtain a large submergence depth. (For example, refer to Patent Document 1).

  In addition, there is a vibration type lure in which vibration means is provided inside the lure body in order to generate vibration in the lure itself while swimming in water or on the water surface. For example, the lure body incorporates vibration applying means for applying a vibration operation to the lure body, electric driving means for driving the vibration applying means, and a solar cell for supplying power to the driving means. The tip of the luer main body is provided with an inclined surface for allowing the luer main body to repeatedly submerge and float by hydrodynamic force when the vibrating lure is towed in water (for example, Patent Document 2). reference).

In addition, there is a lure in which at least one of a vibration sound generating device and a light emitting device is mounted on a lure body, and they are operated at a frequency preferred by fish (for example, see Patent Document 3).
JP 7-298807 A JP-A-11-9142 JP 2003-103 A

  By the way, in the conventional lure, as described above, in order to make the lure equipped with a high specific gravity weight movable in order to vibrate the lure in water or on the surface of the water, delicate control when winding is necessary. Proficiency is required.

  In addition, in the conventional vibration type lure provided with vibration applying means and vibration sound generating device in the lure body, the lure becomes heavy because the device is large, and it becomes difficult to control this high specific gravity lure. There was a problem of end. Also, it cannot float on the water surface with buoyancy.

  The present invention has been made to solve the above-described problems.

  The vibration type lure according to the present invention is characterized in that a housing in which a vibration generating device that imparts a vibration operation and a battery that supplies electric power to the vibration generating device are watertightly incorporated is provided inside the lure body. It is what.

  In the vibration type lure according to the present invention, in the vibration type lure, it is preferable that a buoyancy generator that generates buoyancy in the lure body is provided in the lure body.

  In the vibration type lure of the present invention, in the vibration type lure, it is preferable that a control device that intermittently generates vibration in the vibration generating device is provided in the lure body.

  The vibration type lure of the present invention is preferably arranged such that, in the vibration type lure, the vibration generating device is a rotary type and the rotation axis of the vibration generating device is substantially perpendicular to the water surface.

  The vibration type lure of the present invention is the vibration type lure, wherein the case is composed of a first case and a second case, and a switch for turning ON / OFF the conduction between the vibration generating device and the battery is provided. In order to operate this switch, the first housing and the second housing are rotatably provided to each other, and at least a part of either the first housing or the second housing is an outer surface of the luer body. It is preferable to be exposed to be rotatable.

  As can be understood from the means for solving the problems as described above, according to the present invention, the vibration generator and the battery are stored in a watertight manner inside the casing. The vibration lure provided inside can be made small and light, and the operability can be improved.

  In addition, when a vibrating lure is cast into the water, the lure floats on the water surface due to the buoyancy generator, and if the lure body vibrates with the vibration generator in this floating state, it creates ripples on the water surface, You can feed the lure someday.

  In addition, by arranging the rotation axis of the vibration generator to be substantially perpendicular to the water surface, the way of ripples on the water surface and the movement of the lure differ from the case of horizontal arrangement, and it is selected according to the type of fish It is possible.

  In addition, by operating the vibration generator intermittently with the control device, the life of the battery is lengthened, and a part of the housing is exposed from the surface of the lure body. The battery can be easily replaced.

  Embodiments of the present invention will be described below with reference to the drawings.

  Referring to FIG. 1, in this embodiment, the vibrating lure 1 according to this embodiment has a lure body 3 that has a substantially prey-fish shape, but has been deformed by insects, bandits, or extremely deformed. Appearance such as shape, size, and form is arbitrary, and the material may be synthetic resin, wood, metal, or other materials.

  An eye 5 for tying a fishing line is attached to the front end of the lure body 3, and a fishing hook 9 is connected to the bottom surface and the rear end side of the lure body 3 via a plurality of eyes 7.

  Further, inside the lure body 3, for example, a vibration motor 11 as a vibration generating device that imparts a vibration operation to the lure body 3, for example, a button battery 13 as a power source for supplying power to the vibration motor 11, Is provided in a watertight manner. Further, for example, a control circuit 17 is incorporated as a control device for controlling the operation of the vibration generator. The power source is not limited to the button battery 13, and may be a secondary battery such as a lithium battery, or a battery of another form.

  Further, for example, a polystyrene foam 19 as a buoyancy generator that generates buoyancy in the lure body 3 is attached to the upper portion of the lure body 3. The buoyancy generator is not limited to the above-described foamed polystyrene 19, but may be other foamed resin, a float bag sealed with air, a float made of a material having a lighter specific gravity than water, or other forms of buoyancy generators. It doesn't matter.

  Referring to FIGS. 2 and 3, the above-described capsule-shaped casing 15 will be described in detail. The casing 15 has a cylindrical capsule shape and serves as a first bowl-shaped casing having an opening 21. For example, it comprises an upper housing 23 and, for example, a lower housing 27 as a bowl-shaped second housing having an opening 25, and the upper housing 23 and the lower housing 27 are provided in each opening 21, 25. It is configured to be assembled into a capsule shape by screwing with a screw portion 29. Therefore, when the upper housing 23 and the lower housing 27 are rotated in opposite directions, the upper housing 23 and the lower housing 27 are moved toward and away from each other by the screw portion 29. If the upper housing 23 is not turned on when it is tightened, the height can be finely adjusted with the screw portion 29 to ensure that the upper housing 23 is turned on.

  Note that a mounting screw portion 31 is passed through substantially the center of the bottom of the upper housing 23 and the lower housing 27. For example, the lower housing 27 is fixed to the luer body 3 by using the mounting screw portion 31. In order to make the upper housing 23 easy to rotate, a knob portion for gripping the upper housing 23 can be attached. Alternatively, the upper housing 23 may be fixed to the luer body 3 and the lower housing 27 may be rotated. Alternatively, it can be used for other purposes. Further, when the mounting screw portion 31 is not used, it is closed by, for example, a blind screw. It is desirable that the mounting screw portion 31 is not provided in view of waterproofness.

  In addition, a groove 33 is provided around the outer peripheral surface of the lower housing 27 that is removed from the screw portion 29, and the opening end surface of the upper housing 23 is pressed against the O-ring 35 attached to the groove 33, thereby The inside of the body 15 is configured to be watertightly sealed.

  For example, a flat vibration motor 11 is mounted on the bottom side of the lower housing 27, and a button battery 13 is mounted on the bottom side of the upper housing 23, and the vibration motor 11, button battery 13, A switch 37 for turning ON / OFF the current supplied from the button battery 13 to the vibration motor 11 is mounted between the switches.

  In this embodiment, conductors 39A and 39B are provided from the bottom surfaces of the upper housing 23 and the lower housing 27 to the side walls, and when the upper housing 23 and the lower housing 27 are screwed together, each conductor 39A is provided. 39B, the vibration motor 11 and the button battery 13 are stored so that the bottom surfaces thereof are electrically connected by the conductors 39A and 39B.

  4 and FIG. 6 are also referred to, FIG. 5 shows a cross section of the switch 37, and the lower part of the switch 37 is connected to the upper part of the vibration motor 11 via an annular insulating part 41. The contact portion 43 that is in contact with the vibration motor 11 is provided in a substantially central portion of the upper portion of the vibration motor 11.

  The switch 37 has a diaphragm shape, and, for example, a negative (−) electrode portion on the entire lower surface of the button battery 13 is provided on the upper portion of the switch 37.

  When the upper housing 23 is rotated, the screw portion 29 approaches and separates from the lower housing 27, so that the bottom surface of the button battery 13 can be displaced in a direction to approach and separate from the contact portion 43. . Accordingly, the switch 37 can be pressed downward in a state where the conductor 39A on the bottom surface of the upper housing 23 is electrically connected to the plus (+) electrode portion on the entire top surface of the button battery 13.

  In this embodiment, the switch 37 has a bowl-like shape in which the dome-shaped member 45 has a substantially circular outer periphery and has flexibility, and the dome-shaped member 45 has a lower portion in FIG. A protrusion 51 is provided that includes an inward protrusion 47 that protrudes inward on the concave surface side, and an outward protrusion 49 that protrudes outward on the upper convex surface side in FIG. 5. As the projecting portion of this embodiment, the inward projecting portion 47 is provided at the substantially central portion of the dome-shaped member 45, and the outer projecting portion 49 has the inner projecting portion 47 on the outer peripheral side of the inward projecting portion 47. It is provided in an annular shape around the center.

  With the above configuration, when the upper housing 23 is rotated about 180 °, for example, when the outward projection 49 of the switch 37 is pressed downward via the button battery 13 as shown in FIG. Since the switch 37 has flexibility, the switch 37 is bent downward and the inward projection 47 reliably contacts and conducts the contact portion 43, and the switch 37 is turned on. Therefore, the vibration motor 11 is electrically connected, rotates to generate vibration, and the entire housing vibrates.

  In addition, when the upper housing | casing 23 rotates in the reverse direction and raises, the switch 37 will return to an original position, the inward projection part 47 will leave | separate from the contact part 43, and the switch 37 will be turned off.

  Next, for example, a flat small DC vibration motor 11 as the vibration motor 11 used in the above-described embodiment will be described with reference to the drawings.

  7 to 9, the small vibration motor 11 includes a stator 53, a rotor 55 rotatably mounted on the stator 53, and one end for sealing the rotor 55. And a flat cylindrical motor case 57.

  The rotor 55 includes, for example, an armature 67 including a plurality of armature windings 63 (coils) integrally formed on the rotation shaft 61 by a mold tree 59 and a weight 65 as a vibrator, and the rotation shaft 61. , And a slip ring 69 connected to a terminal of the armature winding 63.

  Further, the rotor 55 is accommodated in the motor case 57, and the open end of the case 57 in which the rotor 55 is accommodated is a lid 73 to which a magnet 71 (permanent magnet) facing the armature winding 63 is attached. It is closed by a stator 53 that is configured.

  The magnet 71 is divided into a plurality of pieces and arranged in a ring shape. More specifically, in the magnet 71, the magnet with the N pole facing up and the magnet with the S pole facing up are alternately arranged in a ring shape every 90 °, and the magnet 71 has the rotating shaft 61 with respect to the armature winding 63. Opposite the axial direction. The configuration of the plurality of magnets 71 can be said to be obtained by dividing the magnet 71 that is continuous in a ring shape at a position where the magnetic poles are reversed.

  A brush 75 for supplying a DC voltage to the armature winding 63 is attached so as to be in contact with the outer periphery of a slip ring 69 (commutator) provided around the rotary shaft 61 passing through the central portion of the magnet 71 arrangement. It has been.

  FIG. 9 is a perspective view showing the attachment state of the brush 75 in relation to the magnet 71. The brush 75 is drawn to the outside of the magnet 71 through the gap between the divided magnets 71 in a state in which the tip portion thereof is in contact with the outer peripheral surface of the slip ring 69 attached to the rotating shaft 61. A base end portion of the brush 75 is supported and fixed to a voltage application terminal member 77 disposed outside the magnet 71. The brush 75 is drawn from the position of the rotating shaft 61 of the vibration motor 11 to the outside of the magnet 71 through a gap between the magnets 71 divided into a plurality of parts.

  With the above configuration, when a current is supplied to the plurality of armature windings 63 via the slip ring 69, the rotor 55 is in accordance with Fleming's left-hand rule according to the direction of the current and the direction of the magnetic lines of force from the magnet 71. The direction of rotation is determined. During this rotation, the current is rectified by the slip ring 69 and a current flows sequentially to each armature winding 63, and the rotation of the rotor 55 is maintained. During this rotation, vibration is generated by the weight 65 of the rotor 55.

  Referring to FIG. 10, the control device incorporates a control circuit 17 incorporating a timer or the like for causing the vibration motor 11 to intermittently operate. For example, when the switch 37 is turned ON, A timer in the control circuit 17 is activated to repeat ON and OFF operations in which a direct current is conducted from the button battery 13 to the vibration motor 11. Note that the interval of the intermittent operation time may be set in advance, or may be irregularly changed according to the type of the target fish.

  Referring again to FIG. 1, in this embodiment, in the capsule-type casing 15, the lower casing 27 is fixed inside the luer body 3, and the upper casing 23 is relative to the lower casing 27. It is attached to the upper part of the lure body 3 so as to be rotatable or exposed. The polystyrene foam 19 is attached to the upper portion of the lure body 3 so as to be easily detachable so that the protruding portion of the casing 15 is hidden.

  Therefore, for example, after rotating the upper casing 23 by approximately 180 ° to turn on the button battery 13 to generate vibration in the vibration motor 11, the foamed polystyrene 19 is attached to the luer body 3, and then the vibrating lure 1 is submerged in water. When the cast lure is cast (throwing a lure), the vibrating lure 1 is floated on the water surface by the polystyrene foam 19. When the vibration lure 1 vibrates due to the vibration of the vibration motor 11, ripples are generated on the water surface, and the target fish reacts with the ripples on the water surface and bites into the vibration lure 1. As described above, even when the vibration type lure 1 vibrates in water, the water surface is less likely to be rippled. However, since the lure is vibrated in a state where it is surely floated on the water surface, the target fish is mistaken for food. Then, you can eat the vibratory lure 1.

  In this embodiment, since the rotation shaft 61 of the vibration motor 11 is disposed so as to be substantially perpendicular to the water surface, ripples are likely to occur on the water surface. Therefore, it is desirable that the casing 15 be disposed on the luer body 3 so that the rotation shaft 61 of the vibration motor 11 is substantially perpendicular to the water surface.

  Further, when the vibration motor 11 is intermittently operated by the control circuit 17, the battery life of the button battery 13 is extended, and it becomes possible to further attract the interest of the target fish. In addition, since the upper casing 23 of the casing 15 protrudes from the surface of the lure body 3, the button battery 13 can be easily turned on and off, and the button battery 13 can be easily replaced. Can do.

  In addition, since the vibration motor 11 and the button battery 13 are housed inside the capsule-shaped casing 15, and the power can be easily turned on and off by the switch 37, it is lightweight and has good operability. The overall size and weight of the vibrating lure 1 can be reduced.

  11 (A) to 11 (C), a part of another embodiment of the present invention is shown. FIG. 11 (A) shows a part of the housing 15 protruding below the luer body 3. 11B is attached so that a part of the housing 15 protrudes to the upper part of the lure body 3 at a position not engaged with the foamed polystyrene 19. Alternatively, a part of the housing 15 may be provided at other positions.

  Further, as shown in FIG. 11C, the housing 15 may be in a state of being built inside the lure body 3. In addition, in this figure, the rotating shaft 61 of the vibration motor 11 is arranged substantially parallel to the water surface, and it may be in such a state. However, as described above, the rotating shaft 61 of the vibration motor 11 is the water surface. It is desirable that they are arranged so as to be substantially perpendicular to the direction. In the case of FIG. 11C, it is desirable that the foamed polystyrene 19 can be easily attached and detached, and the housing 15 can be easily taken out from the inside of the luer body 3.

  A flat and small motor can be freely changed in mounting position regardless of whether the rotation axis is vertical or horizontal. Further, the housing 15 may be arranged such that the upper housing 23 and the lower housing 27 are reversed in the lure body 3. Furthermore, the present invention can be used for vibrating lures having various appearances such as simulated foods such as fish, insects, bandits, or extremely deformed shapes, sizes and forms.

  In addition, this invention is not limited to embodiment mentioned above, It can implement in another aspect by making an appropriate change.

1 is an overall schematic explanatory view of a vibration lure according to an embodiment of the present invention. It is sectional drawing of the casing mounted | worn with the vibration type lure of embodiment of this invention, the button battery mounted | wore inside the housing | casing, and a vibration motor. FIG. 3 is a plan view of FIG. 2. FIG. 4 is a plan view of a vibration motor and a switch viewed from line IV-IV in FIG. 2. It is state explanatory drawing when the switch in a housing | casing is OFF. It is state explanatory drawing when the switch in a housing | casing is ON. It is a partial top view of a vibration motor. It is a VIII-VIII diagram of FIG. It is a perspective view which shows the part of the magnet of a vibration motor. It is a control circuit diagram built in the vibration type lure of the embodiment of the present invention. (A)-(C) are the overall schematic explanatory drawings of the vibration type lure of other embodiment of this invention.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Vibration type lure 3 Luer main body 9 Fishing hook 11 Vibration motor (vibration generator)
13 Button battery (power)
15 Housing 17 Control circuit (control device)
19 Styrofoam (buoyancy generator)
23 Upper housing (first housing)
27 Lower housing (second housing)
29 Screw part 35 O ring 37 Switch 39A, 39B Conductor 41 Insulating part 43 Contact part 51 Projection part 53 Stator 55 Rotor 57 Motor case 59 Mold resin 61 Rotating shaft 63 Armature winding 65 Weight (vibrator)
67 Armature 69 Slip ring (commutator)
71 Magnet (permanent magnet)
73 Lid 75 Brush 77 Voltage application terminal member

Claims (5)

  A vibration type lure characterized in that a casing is provided inside a lure body, in which a vibration generator for applying a vibration operation and a battery for supplying electric power to the vibration generator are watertight.   The vibratory lure according to claim 1, wherein a buoyancy generator that generates buoyancy in the lure body is provided in the lure body.   3. The vibration type lure according to claim 1, wherein a control device is provided in the luer body to cause the vibration generating device to generate vibration intermittently.   4. The vibration type lure according to claim 1, wherein the vibration generation device is a rotary type and is arranged so that a rotation axis of the vibration generation device is substantially perpendicular to the water surface. The casing is composed of a first casing and a second casing, and a switch for turning ON / OFF the conduction between the vibration generator and the battery is provided, and the first casing and the second casing are operated to operate the switch. The housing is provided so as to be rotatable with respect to each other, and at least a part of any one of the first housing and the second housing is rotatably exposed on the outer surface of the lure body. Item 5. A vibrating lure according to items 1 to 4.

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