JP4461071B2 - Fishhook container - Google Patents

Description

  The present invention relates to a fishing tackle for preventing the bait from dropping when throwing a fishhook to a distant point or the like during throwing fishing or long-distance fishing, and this fishing tackle is referred to as a fishhook container in this specification. .

  When throwing a fishhook to a distant point or the like during throwing fishing or long throwing fishing, as a fishing tackle to prevent the bait from falling, typically, various members connected coaxially are used when landing. Or the thing of the type which isolate | separates to an axial direction after that, and the type which a side part opens are proposed.

  The former type mainly uses bait, for example, it is made of a cylindrical body with a curved top and an open bottom end, and is fitted to the open end of the bait and the bait storage tub that floats on the water. A lower cover body in the form of a sinking weight, extending from the lower cover body, penetrating the inside of the bag and attaching a reel thread to the tip of the shaft core protruding from the top of the bag, and from the lower cover body to the Harris connecting material Are known in which the base end of Harris is attached to the tip and the resistor is further provided on the shaft core to suppress the falling speed of the lower lid (for example, Patent Document 1). Yes.

  However, the kite feeder disclosed in Patent Document 1 does not include a fishhook container in other ordinary fishing gears, and tends to be large with a unique device. Also, if it is attempted to be reduced in size and applied to other than bait, there is a risk that inconveniences such as hooking of the fishhook on the shaft core may occur.

  As a bait disperser belonging to this type, it has also been proposed to incorporate a magnet or the like in combination with a movable body in order to reliably perform open control (for example, Patent Document 2). However, the proposed bait spreader has a complicated structure and is not only prone to failure but also may be expensive.

  On the other hand, the latter type is mainly from the viewpoint of forming a bait containing portion on the weight. For example, the container body provided with the weight is attached to the sarkan so as to be slidable in the longitudinal direction. It has been proposed that the lid is locked in a closed state or the lid is allowed to open depending on the position with respect to the sarkan (for example, Patent Document 3). However, since it is intended to be engaged and slid on one side, the displacement of the container main body with respect to the sarkan may not be reliably controlled or is likely to be expensive.

  In addition, providing a spring between a salcan and a container main body is also proposed (patent document 4). However, not only the structure is further complicated, but also it is necessary to ensure sliding, so that it is likely to be expensive in order to be able to operate stably for a long period of time.

  That is, any of the conventional fishhook containers has a complicated structure and tends to be expensive. Further, in many cases, a dedicated metal part or other structural part is required in a portion other than a normal fishing tackle such as a weight or a fishhook. Therefore, every time the fishing line breaks, the expensive fishing gear is lost. On the other hand, if manufacturing is performed at a reduced cost, it is difficult to avoid malfunctions.

In addition, it has been proposed that the portion of the bait needle housed in the container is covered with a spherical body (Patent Document 5 and Patent Document 6). However, in the technique disclosed in Patent Document 5, there is a possibility that the lid may come off when throwing a portion with a fishhook toward the point or during flight. On the other hand, in the case of what is shown in FIG. 7 of Patent Document 6, it is not certain what kind of structure, function and action it has.
JP-A-7-313032 Japanese Patent No. 3618309 No. 7-48067 JP-A-2005-27582 Japanese Utility Model Publication No. 7-39444 Japanese Utility Model Publication No. 7-28367 (FIG. 7 etc.)

  The present invention has been made in view of the above points, and an object of the present invention is to provide a fishhook container that has a relatively simple structure and is less likely to fall off bait.

  The fishhook container of the present invention is a fishhook container having a dome-shaped portion to achieve the above object, and a plurality of container elements that are divided and opened along a dividing line passing through the top of the dome-shaped portion. And a container body connecting means in which the container body is connected at the tip of the dome so that the container can be opened and closed. And a concave portion for accommodating the tip of the dome-shaped portion of the fishhook-contained container, and a contact / holding edge portion for contacting the inclined outer peripheral surface of the intermediate portion of the dome-shaped portion to hold the container in a closed state. Holding means, which has a through-hole that opens at the bottom of the recess, and weight means that presses the abutting / holding edge against the inclined outer peripheral surface of the dome-like portion by mass, with a through-hole in the center It is connected to the container body connecting means at one end, and And a connecting means having a base end portion of Harris inserted through the projecting other end into the through hole of the vessel holding means and Jutsumu means is connected to the reel yarn to be connected, of a relatively simple structure.

  In the fishhook storage device of the present invention, there is provided a “fishhook storage container which is composed of a plurality of container bodies that are divided and opened along the dividing line and accommodates the fishhook together with the tip portion of Harris connected to the fishhook”. Therefore, by dividing the container body along the dividing line, the container is opened and the fishing hook with the bait is placed in the container, and the plurality of container bodies are recombined, A fishhook can be housed in the container. At this time, Harris takes a state of extending from the outside of the container into the container along the dividing line of the container body.

  Further, in the fish hook container of the present invention, “the fish hook container is provided with a dome-shaped portion and is configured to be divided and opened to the container body along a dividing line passing through the top of the dome-shaped portion”. And “a container having a concave portion for accommodating the tip of the dome-shaped portion of the fishhook-contained container and an abutting / holding edge portion for contacting the inclined outer peripheral surface of the intermediate portion of the dome-shaped portion to hold the container in a closed state. Since the holding means is provided, the dome-shaped portion is accommodated in the concave portion of the container holding member at the distal end in the state where the container body is combined along the dividing line, and the intermediate portion of the dome-shaped portion is inclined. The container can be held by the container holding means in a closed state by positioning with respect to the container holding means so as to be in contact with the contact / holding edge of the container holding means on the outer peripheral surface.

  Furthermore, in the fishhook container of the present invention, “the container body connecting means for connecting the container body at the tip of the dome-like portion so that the container can be opened and closed, and the abutment / holding edge portion by the mass are arranged on the dome. Weight means that presses against the inclined outer peripheral surface of the shape-shaped part and has a through hole in the center, and is connected to the container body connecting means at one end and inserted into the through holes of the container holding means and weight means And the connecting means connected to the reel thread to which the proximal end of Harris is connected at the other end protruding, and thus the reel of the connecting means in a state where the container is closed by the container holding means. By simply pulling up the protruding part on the yarn side, the abutment / holding edge of the container holding means can be pressed against the inclined outer peripheral surface of the dome-shaped part of the container by the weight means, so that the container is substantially closed. Can keep.

  That is, as long as the fishhook with bait is placed in the container and the container is closed and held by the container holding means, the tip of the fishing rod is lifted so that the weight of the weight means is applied to the container holding means The container can be kept closed. Further, in this state, the reel thread can be kept taut if it is swung so as to throw the weight means, and the weight thread means will fly with the abutment / holding edge pressed against the container. Therefore, since the container can be kept closed by the container holding means, the needle can be kept in the container, and there is no possibility that the bait falls from the fishhook.

  If desired, not only a fishhook with a bait but also a bait may be placed in the fishhook container.

  On the other hand, if the fish hook container and the container holding means and the weight means fall to the water surface near the point, the tension against the road line will drop abruptly. There is a gap between As a result, the holding force of the holding means with respect to the fishhook container is released, so that the plurality of container bodies constituting the fishhook container begin to be separated along the dividing line. Since Harris passes through at least one part of the dividing line (surface), separation of the container body easily proceeds at the part. Where there is a gap in the parting line (surface) of the container body, water penetrates between them, so that the division of the container into the container body is facilitated, the container is opened, and the bait needle is moved outside the container. Exposed. Since the container body is connected by the container body connecting means at the tip of the dome-shaped portion, the container can be opened so that the balls are broken when divided into container bodies.

  Here, the outer surface shape of the fishhook container is typically spherical. However, if desired, the container may have a spheroid shape or an oval shape, and the container may have other shapes such as a substantially conical shape as long as there is a dome-shaped portion (the outer surface is a dome-shaped portion). Furthermore, depending on the case, it may be a triangular pyramid shape or a legitimate shape (one corner may be regarded as a dome-shaped portion). In this specification, the dome shape typically refers to a shape curved in a bell shape so as to protrude outwardly, but has a top portion and the periphery of the top portion is inclined toward the top portion. As long as the curve is not practical, the cross section may be a flat or linear shape.

  In addition, when the acicular container is a shape other than a spherical shape, the dome-shaped portion through which the dividing line passes is typically centered on the highest curvature (pointed) portion so that the container body can be easily integrated. Although it is a portion to be (top portion), depending on the case, it may be a portion having a lower curvature (having a low degree of sharpness) so that the container body can be easily divided.

  The dividing line (dividing surface) is typically a flat surface, but it may be curved or complex, such as a complementary serrated surface (a jagged surface), as long as it does not prevent separation into the container body. It may be a surface.

  The number of container bodies constituting the container is typically two, and the two container bodies typically take the form of halves having the same shape. When the container is spherical, the container body is typically hemispherical (ie, hollow hemispherical). However, the size and shape of the two container bodies may be different if desired, as long as the two container bodies can be detachably combined to form a container. Further, the number of container bodies constituting the container may be three or more. In this case, even if each container body has the same size and shape, at least one or all have different sizes. -It may be a shape.

  Note that the mutual contact surfaces (divided surfaces) of the container body typically contact just in the absence of Harris, and there is a gap in the portion where Harris is present. However, if desired, it is also possible to determine a location through which Harris passes, form a groove at the location, and pass Harris along the groove.

  The container holding means includes a concave portion that accommodates the tip of the dome-shaped portion of the fishhook-receiving container and an abutment / holding edge that abuts the inclined outer peripheral surface of the intermediate portion of the dome-shaped portion and holds the container in a closed state. As long as it is provided and has a through hole that opens at the bottom of the recess, it may have any shape.

  Here, the abutment / holding edge is brought into contact with the intermediate portion of the dome-shaped portion, that is, the inclined outer peripheral surface, so that a force for holding the container in a closed state is applied by the contact (flat end surface). On the other hand, so that the container can be separated from the container holding means without applying excessive force (abutting the outer circumference of the largest diameter portion of the container) This is because the container is difficult to come off when the holding edge is completely fitted.

  When the container has a spherical outer surface, the contact / holding edge of the container holding means is any size / shape as long as it has a shape circumscribing a circle smaller than the radius of the outer surface of the container. Also good. Such an abutment / holding edge is provided, for example, by the inner peripheral edge of the circular peripheral edge of the hollow hemispherical body or the hollow partial spherical body. However, as long as it can circumscribe the circle, the abutting / holding edge may be triangular, polygonal, or other shape instead of circular. The abutting / holding edge of the container holding means may be composed of three or more rod-like parts instead of forming a closed curve as long as it can circumscribe the circle. Further, when the container has a shape other than a spherical or circular cross section, the contact / holding edge portion of the container holding means has a shape that circumscribes it according to the cross-sectional shape of the container.

  In addition, the recess may be a part of a spherical surface or any other shape as long as it is recessed so as to accommodate the tip of the dome-shaped portion of the container, such as a conical shape or a truncated cone shape. It may be.

  The container body connecting means typically comprises a flexible string, and the connecting means is connected to the flexible string, so that the flexible string is disposed outside the container. Therefore, in order to secure the space for disposing the flexible string-like body, the concave portion of the container holding means is formed so that a gap remains between the concave portion of the container holding means and the tip of the dome-shaped portion of the container. It is formed. However, for example, when the container body connecting means is composed of a hinge-shaped means incorporated between the tops of the container body, the end of the coupling means may only be engaged with the pin-shaped part of the hinge-shaped means, There may be no gap between the concave portion of the container holding means and the tip of the dome-shaped portion of the container, and the concave portion of the container holding means is actually formed in a complementary shape with the tip of the dome-shaped portion of the container. Also good.

  The through holes of the container holding means and the weight means may have a size that allows the connecting means inserted through the through holes to be freely moved in practice, and may be loosely fitted or slidable. The through hole typically extends linearly. Note that the connecting means typically includes a flexible string-like body, typically a fishing line itself, for example, a road line. The road yarn may be the same as or different from the reel yarn. Instead, the connecting means may be made of a metal wire, a rigid plastic material, or an elongated rod-like body such as bamboo.

  The weight means is typically formed integrally with the container holding means. That is, typically, for example, the material has a shape that should be satisfied by the container holding means, and the mass is a material that satisfies the conditions that the weight means should satisfy. The function as the weight means and the container holding means It consists of a structure satisfying both of the functions. However, it may be configured such that a part of the integral part is composed of a part that functions as the container holding means, and only the other part actually functions as the weight means.

  Here, the weight function of the weight means is (1) a function that acts as a weight when in the air. When the container is suspended, the weight means abuts and holds the container holding means by its mass. The function of pressing the edge against the dome-shaped part of the container, and the function of a weight that ensures the flight when flying to the point by swinging the fishing rod and throwing the part with the fishhook, (2) Landing Later, there are two types of weights that act as a weight that sinks a portion with fishing bait (device) in water. In the present invention, the weight means has at least the function (1).

  The weight means may be a conventional weight. In this case, the weight means may be integrally coupled to the container holding means or may be formed separately.

  In addition, if desired, the weight means may be provided integrally with the ground. In that case, the weight means has only the function (1) of the above two functions. In this case, since the weight means works as a whole as a result of the integration of the ground, the weight means is separated from the container when water enters the container and the container sinks after landing. In particular, when the weight means and the container holding means are integrated, the container is opened by separating the container holding means from the container together with the weight means. Since Harris is inserted in the container along the dividing line, a gap is formed between the container bodies, so that water can easily enter the container. Of course, if desired, a small hole may be formed in the wall of the container so as to avoid leakage of bait (possibly bait).

  In the fishhook container of the present invention, typically, when the container holding means is released from contact with or held by the fishhook container composed of a plurality of container bodies, the fishhook is stored so that the fishhook comes out of the fishhook container. An elastic means for exerting an elastic force on the plurality of container bodies is provided to open the plurality of container bodies of the container. In this case, the container body can be reliably separated after landing. It should be noted that the elastic means itself may provide a certain degree of contact / holding release force. However, the elastic force is preferably set to be relatively small in order to avoid the contact / holding being released by the elastic means.

  In the fishhook container of the present invention, when the container body connecting means comprises a hinge-like body, the elastic means is a spiral spring or a torsion spring that engages the hinge with a shaft (pin) and biases the hinge in one direction. However, in the case where the container body connecting means is made of a flexible string-like body, the elastic means is typically made of a leaf spring having a plurality of openings, and the flexible string It consists of a filamentous body that is branched and loosely fitted into each opening of the leaf spring. In this case, by pulling the filament through the connecting means, the inclined peripheral surface portion of the dome-shaped portion of the container is brought into contact with the contact / holding edge portion of the container holding means, and the container is closed, so that the dome-shaped portion of the container is inclined. By simply separating the peripheral surface portion from the contact / holding edge of the container holding means, the container body can be easily separated by the elastic force of the elastic means.

  In this case, it is preferable that the leaf spring is detachably engaged with each of the container bodies at the end portion of the dome-shaped portion of the container. This facilitates assembly / disassembly.

  In the above, the leaf spring can be formed of a relatively rigid plastic material. The container and the container holding member can also be formed of a rigid plastic material. Accordingly, since all members can be formed of a plastic material except for the weight means formed of lead or the like, it is inexpensive and can be handled easily.

  In the fishhook housing of the present invention, if desired, the flexible string-like body constituting the container body connecting means may have bending elasticity, and may be the elastic means.

  Next, some preferred embodiments of the present invention will be described based on preferred examples shown in the accompanying drawings.

  1 to FIG. 5, a fish hook container 1 according to a preferred embodiment of the present invention includes a needle housing container structure 2 and a weight structure 3 in which container holding means and weight means are integrated. . The fishhook container 1 is attached to a road thread 6 connected to a reel thread 5 via a twisting 4. Here, the entire reel yarn 5 and the road yarn 6 may be regarded as the road yarn. On the twister 4, a Harris 8 having a fishhook 7 attached to the distal end is attached at a base end portion 8 a. The twist 4 may be omitted, and conversely, the Harris 8 and the road thread 6 may be connected to the reel thread 5 through separate twists. There may be a plurality of Harris 8s.

  The needle storage container structure 2 includes a needle storage container 20, a leaf spring 40 as an elastic means, and a road thread connection tool 50 as a container body connection means. Connected to the thread 6. The road thread 6 and the road thread connector 50 may be connected to each other via a connector different from that of the Malcan 11, and conversely, may be directly connected without using the Malkan 11 and other connectors. However, in that case, the road yarn 6 is connected in a state where the road yarn 6 is connected to the middle portion of the road yarn connector 50 or the attachment position of the base end portion of the road yarn 6 is movable with respect to the road yarn connector 50. It is preferably connected to the road line connector 50.

  The needle container 20 includes a pair of hollow hemispherical bodies 21 and 21 as container bodies having the same shape. When the hemispherical bodies 21 and 21 as halves are brought into contact with each other at the annular connection surfaces (divided surfaces) 22 and 22, a hollow spherical body A having an outer surface with a radius R is formed as a whole. The hollow hemispheres 21 are each typically formed of a plastic material and are preferably transparent, but may be opaque if desired. It may be colored or patterned as desired.

  As shown in FIG. 3A, each hollow hemispherical body 21 includes a circular hole 23 and a long hole 24 on one side edge. The holes 23 and 24 are arranged along a great circle B that is perpendicular to the joint surfaces 22 and 22. A thread-like connecting body 51 constituting the path thread connecting tool 50 is inserted into the circular hole 23. When the cross-sectional shape of the connection body 51 is non-circular, the hole 23 can also be non-circular. The long hole 24 includes a long hole main body 25 extending in the extending direction of the great circle B, and a direction (surface 22) perpendicular to the great circle B at the end of the long hole main body 25 on the side close to the joining surface 22. And an engagement hole 26 extending in a direction parallel to the direction. Both ends of the leaf spring 40 are engaged with the long holes 24, 24.

  Here, when viewed from a plane perpendicular to a line connecting the intersections F and Fr of the great circle B and the joint surfaces 22 and 22 in the diameter direction, the long holes 24 and 24 are formed along the circle G1 having the radius R1 with the point F as the center. It is assumed that the end portions 24a and 24a are located. The diameter R1 is smaller than the diameter R. Considering the intersection F closer to the holes 23 and 24 among the intersections F and Fr as the north pole, an area located on the north side of the latitude line in the form of a circle G2 having a radius R2 larger than R1 and smaller than R will be described below. This is called a dome-shaped portion 30. The outer surface 31 of the dome-shaped portion 30 forms a part of a sphere. The outer surface of the dome-shaped portion 30, that is, the dome-shaped outer surface 31 is inclined with respect to both the line connecting the points F and Fr and the plane perpendicular thereto. As long as the diameter R2 is smaller than the diameter R, it may be close to the diameter R.

  As shown in FIGS. 3C and 3D, the leaf spring 40 is composed of an elongated rectangular plate-like body 41 as a whole. The plate-like body 41 is typically made of a relatively rigid plastic material. However, it may be made of a rust-resistant metal material.

  More specifically, the leaf spring 40 includes an elongated rectangular leaf spring main body portion 42 and end engaging portions 43 and 43, and the main body portion 42 and the end engaging portions 43 and 43 are interposed between them. Is formed with a pair of notches 44, 44. That is, the main body portion 42 and the end engaging portions 43, 43 are integrally connected by the narrow connection portions 45, 45.

  The length W1 of the end engaging portions 43, 43 in the width direction of the leaf spring 40 is smaller than the length HL1 of the long hole 24 of the hollow hemispherical body 21, and the side of the engaging hole portion 26 of the long hole 24 is lateral. It is sufficiently larger than the direction length HW1. Further, the width W2 of the connection portion 45 of the leaf spring 40 is larger than the width HW2 of the long hole main body portion 25 of the hollow hemispherical body 21, and smaller than the length HW1 of the engagement hole portion 26. Further, the length L1 of the connecting portion 45 of the leaf spring 40 is slightly larger than the thickness T1 of the hollow hemispherical body 21. The length L2 of the main body 42 of the leaf spring 40 is slightly longer than the distance along the dome-shaped outer surface 31 between the engagement holes 26, 26 of the two long holes 24, 24.

  Therefore, when each end engaging portion 43 of the leaf spring 40 is engaged with the long hole 24 of the hollow hemispherical body 21, the end engaging portion 43 of the leaf spring 40 is elongated according to the direction of the long hole 24. 24, and the end engaging portion 43 of the leaf spring 40 is inserted into the notch 44 of the leaf spring 40 until the wall portion 27 of the hollow hemispherical body 21 is fitted. After the connecting portion 45 is shifted to the engagement hole portion 26 side of the long hole 24, the leaf spring 40 is rotated by 90 degrees, so that the connection portion 45 is just fitted into the engagement hole portion 26 of the long hole 24. The end portion engaging portion 43 is positioned so as to extend in parallel with the engaging hole portion 26 on the back side (inside the hemispherical body 21). Next, the end engaging portion 43 at the other end of the leaf spring 40 is fitted into the elongated hole 24 of the other hollow hemispherical body 21 in the same manner. At the time of fitting, the hemispherical bodies 21 and 21 may be moved relative to the leaf spring 40. As a result, the leaf spring 40 is fitted into the pair of hollow hemispherical bodies 21 and 21 as shown in FIG.

  The mounting and assembling of the leaf spring 40 to the hollow hemispherical bodies 21 and 21 can be performed directly by the angler at the fishing spot. However, if desired, it may be assembled in advance.

  The needle housing container structure 29 in which the hollow hemispherical bodies 21 and 21 are connected by the leaf spring 40 is shown, for example, by an imaginary line in the lower part of FIG. 1 and by a solid line in the lower part of FIG. As described above, a state P1 in which the hollow hemispherical bodies 21 and 21 are opened as if a comb ball is broken, that is, an open position P1 in which the annular surfaces 22 and 22 are largely divided is adopted. On the other hand, as shown by the solid line in FIG. 1 and the imaginary line in FIG. 2, in order to adopt the state P2 in which the annular surfaces 22 and 22 of the hollow hemispherical bodies 21 and 21 are actually joined, that is, the closed position P2. Requires an external force that resists the spring force of the leaf spring 40.

  As can be seen from FIG. 3 (c), the leaf spring main body 42 is further provided with a long hole 46 as a pair of openings through which both end portions 52, 52 of the thread-like connecting body 51 constituting the road thread connector 50 are inserted. 46. The thread-like connecting body 51 may be, for example, a thick fishing line cut short. As can be seen from FIG. 3B in addition to FIGS. 3A and 3C, the long hole 46 has a width W3 substantially equal to the diameter Dh1 of the hole 23 of the hollow hemispherical body 21 and has a diameter Dh1. Greater than the length L3. The long holes 46, 46 are hollow hemispherical when the container 20 comprising the hollow hemispherical bodies 21, 21 is in the closed state P2 as shown in the solid line of FIG. 1 and the imaginary line of FIG. 2 and (b) of FIG. When the container 20 made of the hollow hemispherical bodies 21 and 21 is in the open state P1 as shown by the imaginary line in FIG. 1 and the solid line in FIG. It extends from the position facing the holes 23, 23 of the hemispherical bodies 21, 21 to the inside thereof so that the end portions 52, 52 of the thread-like connecting body 51 are arranged along the extending direction. Have different sizes and positions.

  The end portions 52 and 52 of the thread-like connecting body 51 are inserted into the long holes 46 and 46 of the leaf spring 40 and the holes 23 and 23 of the hollow hemispherical bodies 21 and 21, and project inside the hollow hemispherical bodies 21 and 21. Enlarged portions 54 and 54 are formed at the tip portions 53 and 53. The tip enlargement portions 54 and 54 are formed by, for example, tying the tip portion of the thread 51, and the tip portions 53 and 53 of the thread-like connecting body 51 are detached from the leaf spring 40 and the hollow hemispherical bodies 21 and 21. prevent. If desired, a washer having a desired inner diameter may be provided on the inner surface of the hollow hemispherical body 21, that is, the inside of the hole 23 to prevent the enlarged portion 54 from coming off. The thread-like connecting body 51 is passed through the malcan 11 and is connected to the road thread 6 whose end is fixed to the malcan 11.

  The weight structure 3 in which the container holding means and the weight means are integrated includes a weight body 60 in the shape of a truncated cone having a thin tip portion 61. The weight body 60 includes a conical recess 63 opened at the bottom surface 62. The radius R3 of the inner edge portion 65 located on the bottom surface 62 of the peripheral wall portion 64 of the concave portion 63 is larger than R1 and smaller than R2, and the inner edge portion 65 as the contact / holding edge portion is the same as that of the dome-shaped portion 30. The intermediate portion 32 has a size that comes into contact with the inclined outer peripheral surface 33. The diameter R3 may be close to the diameter R2 as long as it is smaller than the diameter R2. In order to minimize the possibility of the container 20 being disassembled during flight or the like, the diameter R3 is brought close to the diameter R. On the other hand, the diameter R3 is made sufficiently smaller than the diameter R so that the container 20 can be easily broken (easily separated) into the container base bodies 21 and 21.

  The weight body 60 further includes a through hole 68 extending along the central axis C between the bottom 66 of the recess 63 and the end surface 67 of the tip 61, and the thread 6 is inserted through the through hole 68. The Here, the container holding means is composed of a main body portion provided with the peripheral wall portion 64 provided with the concave portion 63 and the edge portion 65 and the through hole 68 in the weight body 60. On the other hand, the weight means is composed of a weight body 60 itself provided with a through hole 68. The shape of the weight means is not limited except that it includes a through hole 68 and is integrated with the peripheral wall portion 64. However, it is preferable that the tip portion 61 side becomes thinner so that the resistance becomes low during flight.

  Next, the operation and operation of the fishhook container 1 configured as described above will be described.

  First, for example, in a fishing spot, the engaging portions 43, 43 at both ends of the leaf spring 40 are engaged with the engaging holes 26, 26 of the corresponding long holes 24, 24 of the hollow hemispherical bodies 21, 21, as described above. By attaching the leaf spring 40 to the hollow hemispherical bodies 21 and 21, and then passing the thread-like connecting body 51 through the marcan 11, the end portions 52 and 52 thereof are elongated holes of the leaf spring 40 as described above. 46 and 46 and through the holes 23 and 23 of the hollow hemispherical bodies 21 and 21, the hollow hemispherical bodies 21 and 21 are mounted.

  Further, the other end of the road yarn 6 having one end tied to the malcan 11 is inserted into the through hole 68 of the weight body 60 from the concave portion 63 side, and the protruding tip is tied to the twisting 4 attached to the tip of the reel yarn 5. On the other hand, the base end portion 8 a of the Harris 8 is also connected to the twisting 4.

  Thereby, the assembly in the spot of the fishhook container 1 is completed. Of course, part or all of the above assembly may be performed in advance.

  Note that when the assembly is completed and the thread 6 protrudes sufficiently from the through hole 68 of the weight body 60, the fish hook container 1 is operated under the action of the spring force of the leaf spring 40. The container 20 takes an open state P1 in which a ball is broken as shown by a solid line in FIG.

  Next, bait K is attached to the fishhook 7, the needle 7 with bait K is put into the container 20 made of the hollow hemispherical bodies 21 and 21, and the hollow hemispherical bodies 21 and 21 are brought into contact with the joining surfaces 22 and 22. The container 20 is closed to the closed state P2. At this time, Harris 8 connected to the needle 7 accommodated in the chamber 28 of the container 20 protrudes outside the chamber 28 of the container 20 from between the joining surfaces 22 and 22. Therefore, strictly speaking, a gap Q (exaggeratedly large in FIG. 4) is formed in the vicinity of the portion where the Harris 8 is present in the joint surfaces 22 and 22 by the thickness of the Harris 8.

  In this fishhook container 1, since the leaf spring 40 and the road line connector 50 are actually outside the container 20, only the fishhook 7 with bait K and the tip of Harris 8 enter the container 20. Accordingly, there is little possibility that the fishhook 7 or the Harris 8 will be caught by other parts and the normal operation will be impaired, or the normal operation will be impaired due to dirt or the like.

  Next, the tip of the fishing rod is lifted with the hollow hemispherical bodies 21 and 21 of the container 20 supported by one hand so as to form the container 20.

  Accordingly, as shown in FIG. 1, the base end side of the reel yarn 5 is lifted upward, so that the weight body 60 in which the road yarn 6 passes through the center C along the through hole 68 is lowered along the road yarn 6. The inner edge portion 65 of the peripheral wall portion 64 of the recess 63 abuts against the inclined outer surface 33 of the intermediate portion 32 of the dome-shaped portion 30 of the hollow spherical container 20, and pushes the hollow hemispherical bodies 21 and 21 in the U direction, The hollow hemispherical bodies 21 and 21 are kept in the closed state P2 against the spring force of the leaf spring 40. As long as the weight body 60 connected to the reel yarn 5 and the road yarn 6 hangs down from the tip of the fishing rod and pushes the inclined surface portion 32 of the dome-shaped portion 30 of the hollow hemispherical bodies 21 and 21 as a weight at the inner edge portion 65, the hollow hemisphere The container 20 composed of the state bodies 21 and 21 is kept in this closed state P2. Therefore, the fish hook 7 at the tip of the Harris 8 is not exposed outside the chamber 28 of the container 20, and there is no possibility that the bait K attached to the needle 7 will come off and fall off.

  FIG. 4 shows an example in which Harris 8 enters the container 20 in the vicinity of a point Fr on the opposite side of the container 20 corresponding to the apex F of the dome 30 as a typical arrangement. However, it may be sandwiched between the joining surfaces 22 and 22 of the hollow hemispherical bodies 21 and 21 at other portions as long as it is outside the edge 65 of the weight body 60 (lower side in FIG. 4). .

  Next, after lightly shaking the fishing rod, the weight body 60 is shaken out to throw away. While the bag is lightly shaken, the weight body 60 swings like a pendulum together with the container 20, so that the container 20 is kept in the closed state P2. In addition, when the weight body 60 is thrown out, the weight body 60 generally flies in the X direction so as to lead the reel yarn 5 as shown in FIG. 5A. .

  At this time, the reel thread 5 is drawn out in the X direction from the rear of the weight body 60 while being pulled by the weight body 60 that leads and flies, so that the road thread 6 is an end surface 67 of the tip 61 of the weight body 60. Take the bent form at the. Therefore, the container 20 composed of the hollow hemispherical bodies 21 and 21 is fitted in the concave portion 63 of the weight body 60 and is held by the inner edge portion 65 of the peripheral wall 64 of the concave portion 63 to be kept in the closed state P2. Accordingly, the fishhook 7 with the bait K at the tip of the Harris 8 is kept in the chamber 28 of the container 20 in the closed state P2. Therefore, there is little possibility that the bait K attached to the fishhook 7 will come off from the fishhook 7. Even in this case, more strictly, as shown in FIG. 4, the joint surfaces 22 and 22 of the hollow hemispherical bodies 21 and 21 are caused by the thickness of the Harris 8 sandwiched therebetween. Although the gap Q remains, since the gap Q is small, there is a possibility that the presence of the gap Q may cause the bait K to come off the fishhook 7 or prevent the weight body 60 and the spherical container 20 from flying in the X direction. Not up.

  When the cone 60 and the container 20 have landed, the tension of the reel yarn 5 is loosened, and there is no force to pull the end portion 6a of the yarn 6 on the side of the twist 4 in the -X direction, so that the yarn 6 also loosens. Moreover, since the impact of the up-down direction Y is applied to the cone 60 and the container 20 with water landing, in many cases, the container 20 is rocked to some extent in the X direction with respect to the cone 60. As a result, the thread 6 is pulled in the −X direction, and the container 20 is detached from the holding edge 65 of the cone 60.

  When the container 20 is disengaged from the holding edge 65 of the cone 60, the hollow hemispherical bodies 21 and 21 of the container 20 are swung by the spring force of the leaf spring 40, and the container 20 is opened and opened so that the ball is broken. Set to P1. When the container 20 is opened, the fish hook 7 with the bait K that was in the chamber 28 of the container 20 comes out of the container 20 and hangs down with Harris 8 connected to the twister 4 (see FIG. 5B).

  Even when the cone 60 and the container 20 are not separated at the time of landing, when the cone 60 and the container 20 reach the bottom of the water or hit a rock or other object in the water, the reel thread 5 and the road thread 6 are loosened. Due to the impact when the cone 60 hits a rock or other object, the container 20 held by the edge 65 on the inclined surface 33 can move relative to the cone 60 and be separated from the cone 60.

  Also, in the unlikely event that the separation of the container 20 from the cone 60 is performed more reliably, a fishing rod may be raised if desired. That is, the tip of the fishing rod may be squeezed. By pulling the reel yarn 5 strongly toward the hand side for a short time, as shown in FIG. 5 (b), the reel yarn 5 is in a tensioned state on the near side. Further, when the reel yarn 5 is pulled strongly toward the front side, as shown in FIG. 1, the road yarn 6 is also taut. Further, when the reel thread 5 is pulled strongly toward the front side, the container 20 connected to the path thread 6 via the path thread connector 50 and the marcan 11 is rapidly pulled in the direction in which the path thread 6 extends. The cone 60 that has hit the inclined surface 33 of the dome-shaped portion 30 of the container 20 at the inner edge portion 65 is also rapidly moved in the extending direction of the road yarn 6. In addition, pulling the reel yarn 5 and the road yarn 6 toward the hand side is stopped by stopping the fishing rod tilting or shackle in a short time. On the other hand, the cone 60 continues to move toward the proximal end portion 6a of the road yarn 6 along the extending direction of the road yarn 6 even after the pulling of the road yarn 6 is stopped because of the inertial force caused by the large mass. For example, as shown in (b) of FIG. On the other hand, the container 20 is relatively light and has a shape that is more susceptible to resistance as compared with the shape of the tip portion 61 of the cone 60. Stop in position. Accordingly, the container 20 can be completely separated from the cone 60, and the container 20 is set to the open position P1 by the leaf spring 40.

  In the state where the container 20 is held by the inner edge portion 65 of the peripheral wall 64 of the concave portion 63 of the cone 60, the bonding surfaces 22 and 22 of the hollow hemispherical bodies 21 and 21 constituting the container 20 are connected to each other. Since the gap Q corresponding to the thickness of Harris 8 sandwiched between the surfaces 22 and 22 is formed, when the container 20 reaches the water, water immediately starts to enter the chamber 28 of the container 20. Therefore, separation of the container 20 from the cone 60 is also promoted by a change in load balance accompanying water intrusion following an impact when the container 20 is landed. Further, when the inside of the chamber 28 of the container 20 is filled with water, the overall density of the container 20 becomes approximately the same as the density of water, so that there is little possibility that the movement of the container 20 is greatly hindered by water.

  In any case, since the container 20 is opened and the fishhook 7 with the bait K is released to the outside of the container 20 after the container 20 has landed, the bait K can be used even in the case of long throwing or throwing fishing. Is less likely to come off the fishhook 7 on the way.

  Even if the weight structure having the container holding mechanism and the weight function is composed of the cone structure 3f provided with the uki portion 70 for providing buoyancy as shown in FIGS. 6 (a) and 6 (b). Good. In the cone structure 3, the weight body 60 (1) a first weight function that functions as a weight in the air when the fishhook 7 is thrown or the like, and (2) a road thread 6 near the fishhook 7 after landing. In contrast to the second weight function that functions as a weight for sinking in water, the weight function indicates the first weight function in the cone structure 3f.

  In the modification shown in FIGS. 6A and 6B, substantially the same members, parts, and elements as shown in FIGS. 1 to 5 are denoted by the same reference numerals, and the shape, size, Subscripts f are attached to parts that are partially different from each other in function or the like.

  In (a) and (b) of FIG. 6, the cone structure 3 f is integrally provided with a weight portion 60 f and a seam portion 70. The weight structure 3f includes, for example, a low-density portion 71 having a low density, a high-density portion 72 having a high density, a coupling portion 73 that integrally connects the two portions 71 and 72, and the two portions 71 and 72, respectively. And a resin portion 76 composed of outer surface layers 74 and 75 to be covered. The low density portion 71 may be a simple cavity or may be made of a light material such as a foamed resin material. The high density portion 72 is made of lead, for example. Here, the weight portion 60 f is composed of a high-density portion 72 and its outer surface layer 75, and the ground portion 70 is composed of a low-density portion 71 and its outer surface layer 74.

  In the example shown in FIGS. 6A and 6B, the conical structure 3f is compared on the side of the tip portion 61f on which the uki portion 70 is formed so as to ensure a sufficiently large volume as the uki portion 70. It is formed with a large diameter. However, the shape may be the same as that of the cone structure 3 as long as the cone structure 3f can function as a whole. The weight structure 3 f includes a through hole 68 f similar to the weight structure 3.

  The weight part 60f of the cone structure 3f is similar to the weight 60 except that the shape of the weight part 60f is different from the weight 60 of the cone structure 3 so that an area for the crumbling part 70 can be secured. Composed.

  In the case of the fishhook container 1f provided with this cone structure 3f, it functions basically in the same manner as the fishhook container 1 provided with the weight structure 3 except for the operation after landing.

  When the fishing rod housing 1f is thrown by shaking the fishing rod, it flies as shown in (a) of FIG. When the water lands, the container 20 of the needle container structure 2 of the fishhook container 1f sinks into the water, whereas the cone structure 3f of the fishhook container 1f is once submerged below the surface of the water. It floats on the water surface due to the buoyancy caused by the portion 70. As a result, the container 20 and the cone structure 3f can be more reliably separated. That is, even if the container 20 is not separated from the cone structure 3f immediately after the landing, the container 20 is separated from the cone structure 3f and falls below the water surface as the container 20 is submerged. With the separation, the container 20 is opened and the fishhook 7 with the bait K comes out in the water. As described above, it is sufficient to lift the fishing rod in order to reliably separate the container 20 from the holding edge portion 65f. In the case of this fishhook container 1g, the weight structure 3f floats on the surface of the water, so that confirmation of separation is easier.

  In this case, Harris 8 is formed in a sufficient length because it is located above the weight structure 3f that acts as a ground and comes out on the water surface.

  In the above, an example in which the low density portion 71 and the high density portion 72 are integrally hardened with resin has been shown. Instead, the weight portion 60f is formed only by the high density portion 72 made of a material such as lead. At the same time, a large-diameter hole having a diameter larger than that of the hole 68f is made in the center, a low-density portion 71 and a base portion 70 having a shaft are prepared like a normal base, and a through-hole 68f is formed at the center of the shaft. It is possible to form the weight structure 3f in which the face portion 70 and the weight portion 60f are integrated by opening and fitting the shaft of the face portion 70 into the large-diameter hole. In that case, the weight structure can be formed by slightly processing the existing parts.

  Further, instead of the fishhook container having the weight structure 3 having both the container holding function and the weight function, a container having a container holding function, such as a fishhook container 1g shown in FIG. You may have separately the container holding member 80 as a holding means, and the weight body 90 as a weight means provided with the weight function.

  The container holding member 80 includes a peripheral wall portion 84 having a concave portion 83 similar to the concave portion 63, and the inner peripheral edge portion 85 of the opening of the peripheral wall portion 84 functions as an abutment / holding edge portion. In this example, the concave portion 83 is hemispherical, the peripheral wall portion 84 is also hollow hemispherical, and has the same shape as the hollow hemispherical body 21 constituting the container 20. However, the distal end portion of the dome-shaped portion 30 of the container 20 is accommodated in the concave portion 83 and the hollow hemispherical bodies 21, 21 are closed by contacting the inclined surface 33 of the intermediate portion 32 of the dome-shaped portion 30 at the inner peripheral edge portion 85. As long as the state can be maintained, the inner surface shape of the recess 83 and the outer surface shape of the wall portion 84 may be different. The container holding member 80 includes a through hole 88 that passes through the center C of the bottom wall 86 of the recess 83, and the thread 6 is inserted into the through hole 88.

  The weight body 90 includes a main body portion 91 having a through hole 98 along the central axis C, and is positioned between the reel yarn 5 and the container holding member 80. More specifically, the thread 6 inserted into the through hole 88 of the container holding member 80 is further inserted into the through hole 98 of the main body 91 of the weight body 90, and the protruding end 6 a is connected to the twisting 4.

  In the fishhook container 1g, each of the container holding member 80 and the weight body 90 is not only movable in the extending direction with respect to the road thread 6, but the weight body 90 is relatively displaced with respect to the container holding member 80. Is possible.

  Also in the case of this fishhook container 1g, after the fishhook 7 with the bait K is accommodated in the container 20, the container 20 is closed by combining the hollow hemispherical bodies 21 and 21, and the tip of the fishing rod is lifted up Then, the edge 85 of the container holding member 80 abuts on the inclined surface 33 of the dome-shaped portion 30 of the container 20, and the weight body 90 presses the container holding member 80 downward and the edge of the container holding member 80. Since 85 is pressed against the inclined surface 33 of the dome-shaped portion 30, the container 20 is kept in the closed state P2.

  Next, the fishing rod holder 1g is thrown together with the weight body 90 by shaking the fishing rod. When the fishing rod is swung, initially, the weight body 90 starts to move due to inertial resistance against the movement of the tip of the rod, so the weight body 90 is pressed against the container 20 in a state in which tension is applied to the road line 6. It is kept in the state. Further, the twisting 4 also works as a weight for the reel yarn 5 and the road yarn 6 (both can be called the road yarn or the reel yarn), so when the fishing rod is swung out, the twisting 4 The reel yarn 5 in the vicinity of the twister 4 on the more distal end side is also actually in a tensioned state. The weight body 90, which is swung out like a double pendulum as the fishing rod swings, jumps out before the fishing rod while being pressed against the container 20, and thereafter, for example, ( Similarly to the case shown in a), the entire fishhook container 1g flies together, so that the container 20 is landed while being kept closed by the container holding member 80. After the landing, the weight body 90 is released by the impact, and the restriction on the container holding member 80 is released. Therefore, the container 20 is separated from the container holding member 80, and the container 20 is opened by the leaf spring 40. The attached fishhook 7 is exposed and hangs down.

  In the case of the fishhook container 1g, the weight body 90 and the container holding member 80 are separate, and therefore the weight body 90 may fall sideways with respect to the container holding member 80. However, even in that case, during the flight, the container holding member 80 and the container 20 are pulled by the weight body 90 that flies at the head in the same manner as the reel thread 5. Since the container 20 is easily kept pressed against the container 20 by the lower end 99 and the container holding member 80 prohibits the container 20 from being opened, there is a relatively low possibility that the container 20 will open during the flight. In the case of this example, it is preferable that the edge 85 has a relatively large diameter close to the diameter of the outer peripheral surface of the container 20 so as to ensure the holding as much as possible.

  Further, the fish hook container may be provided integrally with the spring and the road line connector, instead of being provided separately. FIG. 8 shows a fishhook container 1h provided with a road line connector 100 made of a thick string made of a material having bending elasticity such as rubber.

  In the fishhook container 1h, the same members, parts or elements as shown in FIGS. 1 to 5 are denoted by the same reference numerals, and are partially different in at least one of shape, structure, function and the like. Subscripts h are attached to those with.

  In this example, each of the hollow hemispherical bodies 21h and 21h constituting the container 20h includes one hole 23h instead of the holes 23 and 24. The part where the hole 23 h is formed is typically the same part as the part of the hole 23 or a part between the hole 23 and the hole 24. The hole 23h is typically a circular hole.

  The road thread connector 100 is composed of a rubber string 101 having a circular cross section and a large thickness and sufficient bending elasticity. The diameter of the rubber string 101 is substantially the same as the diameter of the hole 23h, and both end portions 102, 102 of the rubber string 101 are inserted into the holes 23h, 23h and protrude to the inner surface side of the hollow hemispherical bodies 21, 21. An annular plate-like body 104, 104 such as a washer is fitted to the protruding end portions 103, 103, and enlarged portions 106, 106 are formed at the protruding front end portions 105, 105 to prevent them from coming off. The enlarged portion 106 may be formed by winding a thread, or may be formed by inserting a pin laterally into the tip portions 105 and 105. Instead of fitting the annular plate-like body 104, pins for preventing removal may be inserted into the protruding end portions 103, 103. The pin may be a metal but may be a relatively rigid plastic material.

  Note that the elastic cord 101 is connected through the markan 11 to a thread 6 having an intermediate portion inserted through the markan 11 and an end portion connected to the markan 11.

  The other points of the fishhook container 1 h are configured in the same manner as the fishhook container 1.

  In the fishhook container 1h configured as described above, the road line connector 100 made of the thick rubber string 101 functions in the same manner as the leaf spring 40 and the road line connector 50. Therefore, the fishhook container 1h is the fishhook container. It will be apparent that it can function in the same way as 1.

  In the above description, an example in which the needle container 20 is formed of a hollow spherical body has been described. However, the dome-shaped portion of the container is hit by the edge portions 65, 85, etc. of the members 60, 3f (60f), 80, etc. When the container is brought into contact and held and kept in the closed state, and the corresponding contact and holding is released, the shape and structure may be different as long as the container can take the open state.

  Further, in the above description, an example in which a marcan is used between the road line connector and the road line has been described. However, even if the end part of the road line is directly connected to the road line connector, other connecting members are used. It may be connected via. Similarly, Harris 8 may be connected to another twist instead of being connected to the same twist as the yarn 6, and may be directly connected to the reel yarn in some cases. In that case, there may be no twist between the road yarn and the reel yarn.

BRIEF DESCRIPTION OF THE DRAWINGS Sectional explanatory drawing of the fishing hook accommodation tool of preferable one Example by this invention. Cross-sectional explanatory drawing which showed the state which has a container in an open position in the fishhook accommodation tool of FIG. It is for demonstrating the needle accommodation container structure of the fishhook accommodation tool of FIG. 1, (a) is plane explanatory drawing of a container, (b) is a needle accommodation container which attaches a leaf | plate spring and a path thread connection tool to a container. FIG. 3C is an explanatory plan view of a structure, FIG. 3C is an explanatory plan view of a leaf spring, and FIG. 4D is an explanatory right side view of the leaf spring of FIG. The cross-sectional explanatory drawing which expanded the state where Harris was pinched | interposed between the joint surfaces of a pair of hollow hemispherical bodies in the state which has a container in the open position in the fishing hook accommodation tool of FIG. FIG. 1 shows a state after throwing the fishhook container of FIG. 1, (a) is a cross-sectional explanatory view showing a flying state, and (b) is raised after landing of the fishhook container of (a). Cross-sectional explanatory drawing which showed the state which made the container the open position. FIGS. 1A and 1B show a modification of the fishhook container of FIG. 1, where FIG. 1A is a cross-sectional explanatory view showing a state where the container is in an open position, and FIG. Figure. Sectional explanatory drawing about another modification of the fishhook accommodation tool of FIG. Cross-sectional explanatory drawing about another modification of the fishhook accommodation tool of FIG.

Explanation of symbols

1, 1f, 1g, 1h Fishhook container 2 Needle container structure 3, 3f, 3g Weight structure 4 Yorimodoshi 5 Reel thread 6 Road thread 7 Fishhook 8 Harris 11 Marcan 20 Needle container 21, 21h Hollow hemispherical body 22 Joint surface 23, 23h Hole 24 Long hole 26 Engagement hole 27 Wall 28 Chamber 29 Needle container structural body 30 Dome-shaped portion 31 Domed outer surface 32 Intermediate portion 33 Inclined surface portion 40 Leaf spring 42 Leaf spring main body portion 43 End engagement portion 44 Notch portion 45 Connection portion 46 Long hole 50 Road thread connector 51 Threaded connection body 52 End portion 53 Tip portion 54 Tip enlarged portion 60 Weight body 60f Weight portion 61 Tip portion 62 Bottom surface 63 Concavity 64 Circumferential wall Part 65 Inner edge part 66 Bottom part 67 End surface 68 Through-hole 70 Uki part 71 Low density part 72 High density part 73 Coupling part 74,75 Outer surface layer 80 Container holding member 83 Recess 84 Perimeter wall part 85 Inner circumference Edge portion 86 Bottom wall 88 Through hole 90 Weight body 91 Main body portion 98 Through hole 99 Lower end portion 100 Road thread connector 101 Rubber string 102 End portion 103 Protruding end portion 104 Plate-like body 105 Protruding tip portion 106 Enlarged portion A Hollow Spherical body F vertex K bait Q gap

Claims (9)

A fish-tip storage container having a dome-shaped portion, comprising a plurality of container bodies divided and opened along a dividing line passing through the top of the dome-shaped portion, and a tip portion of Harris connecting the fish-hook to the fish-hook And what is housed inside,
A container element body connecting means for connecting the container element body at the tip of the dome-shaped part so that the container can be opened and closed;
Container holding means provided with a recess for accommodating the tip of the dome-shaped portion of the fishhook-receiving container and a contact / holding edge for holding the container in a closed state by contacting the inclined outer peripheral surface of the intermediate portion of the dome-shaped portion And having a through hole that opens at the bottom of the recess,
Weight means that presses the abutting / holding edge against the inclined outer peripheral surface of the dome-like portion by mass, and has a through hole in the center,
A connecting means connected to the container body connecting means at one end and connected to a reel thread to which the proximal end of Harris is connected at the other end protruding through the through hole of the container holding means and the weight means; A fishhook container. A plurality of containers for opening the plurality of container bodies of the fishhook receiving container so that the fishhook comes out of the fishhook receiving container when the contact / holding of the container holding member with respect to the fishhook housing container made of a plurality of container bodies is released. The fishhook container according to claim 1, further comprising elastic means for exerting an elastic force on the element body. The fishhook container according to claim 2, wherein the container body connecting means is formed of a flexible string-like body. The fishhook container according to claim 3, wherein the elastic means includes a leaf spring having a plurality of openings, and the flexible string-like body includes a thread-like body that is branched and loosely fitted into each opening of the leaf spring. The fish hook container according to claim 4, wherein the leaf spring is detachably engaged with each of the container bodies at the end of the dome-shaped portion of the container. The fishhook container according to claim 3, wherein the flexible string-like body has bending elasticity and serves as the elastic means. The fish hook container according to any one of claims 1 to 6, wherein the plurality of container bodies are formed of a pair of halves. The fishhook container according to any one of claims 1 to 7, wherein the weight means is formed integrally with the container holding means. The fishhook container according to any one of claims 1 to 8, wherein the weight means integrally includes a ground.

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