KR20060100276A - Sole material and shoes for fishing - Google Patents

Abstract

[PROBLEMS] To provide fishing shoes exhibiting excellent anti-slip effect and shoe soles used in the same.

[Solution] The fishing shoe 10 includes a shoe bottom 13. The shoe bottom material 13 has a felt member 34, a rubber pin 35, and a mounting plate portion 33. The felt member 34 is formed in the shape corresponding to the outer bottom part of a shoe main body, and is attached to the outer bottom part so that attachment or detachment is possible. The surface 38 of the rubber pin 35 is exposed to the sole of the shoe. The rubber pin 35 consists of butyl rubber of 20-40 hardness. The rubber pin 35 is formed in cylinder shape. The rubber pin 35 is fitted in the rubber pin accommodation chamber 37 provided in the felt member 34, and can deform | transform in the said rubber pin accommodation chamber 37.

Shoe sole, fishing shoe, rubber pin, felt member, mounting plate

Description

Shoe flooring and fishing shoes {SOLE MATERIAL AND SHOES FOR FISHING}

1 is a perspective view of a fishing shoe according to a first embodiment of the present invention.

2 is an enlarged cross-sectional view of the main portion of the fishing shoe according to the first embodiment of the present invention.

3 is a partially exploded perspective view of the shoe bottom of the fishing shoe according to the first embodiment of the present invention.

4 is a perspective view of a rubber pin according to a second embodiment of the present invention.

Fig. 5 is a sectional view showing a mounting method of the rubber pins according to the second embodiment of the present invention.

6 is an enlarged cross-sectional view of the main portion of the fishing shoe according to the third embodiment of the present invention.

7 is a perspective view of a rubber pin 60 according to the fourth embodiment of the present invention.

8 is a longitudinal cross-sectional view of the rubber pin 60 according to the fourth embodiment of the present invention, and the VIII-VIII front end section of FIG. 7 is shown.

9 is an enlarged cross-sectional view of the main portion of the shoe sole 13 provided with the rubber pin 60 according to the fourth embodiment of the present invention.

10 is an enlarged cross-sectional view of the main portion of the shoe sole 13 when a load is applied to the surface 38 of the rubber pin 60 according to the fourth embodiment of the present invention.

11 is a longitudinal sectional view of the rubber pin 70 as a modification of the rubber pin 60.

12 is an enlarged cross-sectional view of the main portion of the shoe sole 13 provided with the rubber pin 70 that is a modification of the rubber pin 60.

FIG. 13 is an enlarged cross-sectional view of the main portion of the shoe sole 13 when a load is applied to the surface 38 of the rubber pin 70 which is a modification of the rubber pin 60.

<Explanation of symbols for the main parts of the drawings>

10: fishing shoes 11: shoe body

12: midsole portion 13: shoe sole

31: outer bottom of the shoe body 32: concave

33: mounting plate portion 34: felt member

35: rubber pin 37: rubber pin storage chamber

38: surface of rubber pin 39: upper surface of the felt

40: lower surface of the felt 41: the upper surface of the rubber pin

42: circumferential surface of the rubber pin 50: rubber pin

51: cylinder 52: flange

53: Going Home 54: Going Home

60: rubber pin 61: hole

62: side 63: bottom plate

70: rubber pin

The present invention relates to the construction of shoe soles for use in shoe soles of fishing shoes, in particular fishing shoes.

For example, in rock fishing or river fishing, anglers walk on rocks or rocks (watersides with stones and rocks). Stones and rocks of such fishing grounds are generally wet, and moss and the like are often attached. Therefore, various improvements are conventionally added to the shoe sole of fishing shoes worn by anglers so as not to slip during walking (see, for example, Patent Documents 1 to 6).

Specifically, in conventional fishing shoes, (a) the sole of the shoe is made of felt, (b) the spike bottom is provided on the sole of the shoe, and (c) the sucker is placed on the sole of the shoe. ) Is installed. Fishing shoes subjected to such an improvement exhibit a certain anti-slip effect under constant conditions (under an environment of a fishing sitter), respectively. That is, for example, when the rocks and rocks are made of flat rocks and are not very wet, it is preferable that the soles of the shoes are made of felt, and the soft moss grows and is always wet when the rocks and rocks are formed. If present, it is preferable that spike pins are provided at the bottom of the shoe.

<Patent Document 1> Japanese Unexamined Patent Publication No. 2002-282009

Patent Document 2: Japanese Unexamined Patent Publication No. 2001-197903

<Patent Document 3> Japanese Unexamined Patent Publication No. 10-42905

<Patent Document 4> Japanese Patent Application Laid-Open No. 4-4803

<Patent Document 5> Japanese Unexamined Patent Publication No. Hei 1-26101

Patent Document 6: Japanese Unexamined Patent Publication No. 63-191905

However, the environment of the fishing field varies, and there may be a case where the surface of the rock is a smooth surface or a wet rough surface. In addition, soft moss may grow on the surface of the rock, or relatively hard seaweed may grow. In conventional fishing shoes, it was difficult to exert an excellent anti-slip effect in response to such various environments. For example, fishing shoes provided with spike pins on the soles of shoes have excellent anti-slip effect in the places where the rocks of the rough surface are large, but high anti-slip effects cannot be achieved in the places where moss and the like grow.

It is therefore an object of the present invention to provide fishing shoes and shoe soles used in the same, which exhibit excellent anti-slip effect even in all environments in a fishing field.

(1) In order to achieve the above object, the fishing shoe according to the present invention has a shoe body into which the angler's legs can be inserted, and a shoe sole provided on an outer bottom surface of the shoe body. This shoe bottom material is provided with the shoe sole body which consists of a felt attached to the said outer bottom surface, and the rubber pin provided in the shoe sole body so that the surface may be exposed to a shoe sole. This rubber pin consists of butyl rubber of hardness 20-40.

According to this configuration, the angler inserts his leg into the shoe body and wears fishing shoes. When the angler walks wearing the fishing shoes, the shoe sole body is pressed against the stones or rocks of the fishing ground. At this time, since the surface of the rubber pin is exposed to the sole of the shoe, the surface of the shoe sole body made of felt and the surface of the rubber pin are pressed against stones or rocks. In addition, since this rubber pin is made of the butyl rubber of the hardness, the rubber pin is easily deformed and reliably grips the rock or the like of the fishing field. In addition, in this specification, the hardness of the said rubber pin means durometer-type hardness (JIS # K # 6263).

It is preferable that the said shoe sole main body has a rubber pin accommodation chamber which opens to the shoe sole, and the said rubber pin is press-fitted into the said rubber pin accommodation chamber. In this configuration, only the rubber pin is configured as a separate member and is simply attached to the shoe sole body. As a result, the structure of the fishing shoe is simplified, and a significant increase in the manufacturing cost is avoided.

The rubber pin is formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed on the heel portion of the shoe sole body and the portion extending from the long core of the sole to the toe. It is preferable that it is done. In this structure, since the structure of a rubber pin is extremely simple, the structure of fishing shoes also becomes simple. Furthermore, the manufacturing cost of fishing shoes does not increase significantly. In addition, a higher anti-slip effect is exhibited by the rubber pins being evenly arranged at the heel portion of the shoe sole body and the portion from the long sole to the toe of the sole of the shoe.

It is preferable that the surface of the said rubber pin and the surface continuous to the said surface become relatively displaceable with respect to the said shoe sole main body. When the angler walks, the shoe sole body deforms. Therefore, if each of the surfaces of the rubber pin cannot be relatively displaced with respect to the shoe sole body, the deformation of the rubber pin is regulated at the time of the angler's walking, and as a result, it is impossible to obtain a sufficient grip force on the rock of the fishing field or the like. do. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, even when the angler walks on the fishing field, a high antislip effect is exhibited.

The shoe bottom is further provided with a mounting member covering an upper surface of the shoe bottom body facing the outer bottom of the shoe body, and the mounting member is detachable from the outer bottom of the shoe body. It is preferable to be installed as possible. In this case, since the shoe sole is detachable to the shoe main body, there is an advantage that only this can be replaced if the shoe sole is worn. In addition, the rubber pin accommodation chamber may be configured as a through hole provided in the shoe sole body. And it is preferable that only the surface which opposes the said mounting member of the said rubber pin is fixed to the said mounting member. In this case, the rubber pin is inserted into the through hole and fixed to the mounting member by, for example, an adhesive or the like. For this reason, there exists an advantage that the operation | work which assembles a rubber pin to a shoe sole main body becomes extremely simple. In particular, it is preferable that the flange is provided in the surface which opposes the said mounting member of the said rubber pin. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin passes through the through hole from the shoe main body side of the shoe sole main body, and the flange is in contact with the shoe sole main body to maintain the positioning state in the shoe sole main body. And the said mounting member is provided in the upper surface of the said shoe sole main body so that the said flange may be fitted in this state.

It is preferable that the surface of the said rubber pin protrudes in the range of 1 mm-3 mm from the said shoe bottom. In this configuration, when the shoe sole body is pressed against the stone or rock of the fishing ground, the rubber pin is deformed to securely engage the gripping stone or the like. Therefore, a higher antislip effect is exhibited. In addition, when the rubber pin protrudes as described above, the wear rate of the shoe sole body and the wear rate of the rubber pin almost coincide. Therefore, there is an advantage that a high anti-slip effect is maintained.

It is preferable that the thin groove of predetermined depth is provided in the surface of the said rubber pin. As a result, even when the stone or the rock is wet, water existing between the stone and the rubber pin is drained from the thin groove. Thereby, a higher antiskid effect is exhibited. It is preferable that this thin groove is formed in the cross shape on the surface of the said rubber pin. Thereby, there exists an advantage that a higher drainage effect is exhibited.

(2) In order to achieve the above object, the shoe sole according to the present invention is a shoe sole which is provided on the outer bottom of the shoe main body, so that the shoe sole main body and the surface of the shoe sole are exposed on the lower surface of the shoe sole main body. It is provided with a rubber pin installed in the shoe sole body. This rubber pin consists of butyl rubber of 20-40 hardness.

According to this configuration, when the shoe sole body contacts the stone or rock of the fishing ground, the rubber pin is exposed to the shoe sole, so that the surface of the shoe sole body and the rubber pin made of felt contact the stone or rock. In addition, since the rubber pin is made of the butyl rubber of the hardness, the rubber pin is easily deformed to securely grip the rock of the fishing field.

It is preferable that the said shoe sole main body has the rubber pin accommodation chamber opened to the lower surface of the said shoe sole main body, and the said rubber pin is press-fitted into the said rubber pin accommodation chamber. In this configuration, only the rubber pin is configured as a separate member and is simply assembled to the shoe sole body. As a result, the structure of the shoe sole is simplified, and an increase in manufacturing cost is suppressed.

The rubber pin is preferably formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed in the heel portion of the shoe sole body and the portion extending from the long core to the toe of the sole of the shoe. In this structure, since the structure of a rubber pin is extremely simple, the structure of shoe sole material also becomes simple. Furthermore, the manufacturing cost of shoe soles does not increase significantly. In addition, a higher anti-slip effect is exhibited by the rubber pins being evenly arranged at the heel portion of the shoe sole body and the portion extending from the center of the sole to the toes.

It is preferable that the surface of the said rubber pin and the surface continuous to the said surface become relatively displaceable with respect to the said shoe sole main body. The shoe sole is forced and periodically deformed repeatedly due to the angler walking during actual use. Therefore, if the respective surfaces of the rubber pin cannot be relatively displaced with respect to the shoe sole body, the deformation of the rubber pin is regulated at the time of deformation of the shoe sole, and as a result, sufficient grip force on the rock of the fishing field, etc. You won't get it. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, a high antislip effect is exerted.

It is preferable that a mounting member is further provided which covers the upper surface of the shoe bottom body facing the outer bottom of the shoe body and is detachably engaged to the outer bottom of the shoe body. In this case, since the shoe bottom material is detachable from the shoe body, if the shoe bottom material is worn, there is an advantage that only this can be replaced. In addition, the rubber pin receiving chamber may be configured as a through-hole installed in the shoe sole body. It is preferable that only the surface of the rubber pin facing the mounting member is fixed to the mounting member. In this case, the rubber pin is inserted into the through hole and fixed to the mounting member by, for example, an adhesive or the like. For this reason, there exists an advantage that the operation | work which assembles a rubber pin to a shoe sole main body becomes extremely simple. In particular, it is preferable that the flange is provided in the surface which opposes the said mounting member of the said rubber pin. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin is brought into the through hole, and the flange is in contact with the shoe sole body so that the rubber pin is held in the positioning state in the shoe sole body. And the said mounting member is provided in the upper surface of the said shoe sole main body so that the said flange may be fitted in this state.

It is preferable that the surface of the said rubber pin protrudes in the range of 1 mm-3 mm from the said shoe bottom. In this configuration, when the shoe sole body is pressed against the stone or rock of the fishing ground, the rubber pin is deformed to securely engage the gripping stone or the like. Therefore, a higher antislip effect is exhibited. In addition, when the rubber pin protrudes as described above, the wear rate of the shoe sole body and the wear rate of the rubber pin almost coincide. Therefore, there is an advantage that a high anti-slip effect is maintained.

It is preferable that the thin groove of predetermined depth is provided in the surface of the said rubber pin. As a result, even when the stone or the rock is wet, water existing between the stone and the rubber pin is drained from the thin groove. Thereby, a higher antiskid effect is exhibited. It is preferable that this thin groove is formed in the cross shape on the surface of the said rubber pin. Thereby, there exists an advantage that a higher drainage effect is exhibited.

(3) In order to achieve the above object, the fishing shoe according to the present invention has a shoe body into which the angler's legs can be inserted, and a shoe sole provided on the outer bottom of the shoe body. This shoe bottom material is provided with the shoe sole main body which consists of felt attached to the said outer bottom surface, and the rubber pin provided in this shoe sole main body. This rubber pin has a bottom plate part whose surface is exposed to the sole of a shoe, and a substantially normal side part which was set up on the outer periphery of the said bottom plate part, The surface of the rubber pin and the surface continuous to the surface are relatively displaceable with respect to the shoe sole body.

The angler inserts his leg into the shoe body and wears fishing shoes. When the angler walks while wearing fishing shoes, the shoe sole body is pressed against the stones or rocks of the fishing ground. When fishing shoes are used in a place with a lot of rough rocks etc., the sole bottom body which consists of felt reduces by abrasion, As a result, a rubber pin may protrude remarkably from a shoe bottom. According to the above configuration, the side of the rubber pin is bent by the load applied to the rubber pin during walking, and the rubber pin itself is immersed into the shoe sole body. At this time, the rubber pin presses the ground not only by the elasticity of the rubber as the material but also by the restoring force of the fin side portion. This ensures that the rubber pin is securely gripped against the rocks of the fishing field. In addition, since the rubber pin is immersed into the shoe sole body, the shoe sole front always contacts the ground plane. Therefore, the angler can maintain a stable posture without breaking the balance.

In addition, when the angler walks, the shoe sole body deforms. Therefore, if each of the surfaces of the rubber pin cannot be relatively displaced with respect to the shoe sole body, the deformation of the rubber pin is restricted at the time of the angler's walking, and as a result, it is impossible to obtain a sufficient grip force on the rock of the fishing field or the like. do. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, even when the angler walks on the fishing field, a high antislip effect is exerted.

It is preferable that the said rubber pin consists of butyl rubber of 20-20 hardness. In this way, since the rubber pin is made of the above-mentioned butyl rubber, the rubber pin is easily deformed and reliably grips the rock of the fishing field.

It is preferable that the said side part is formed in the crimped hose shape which allows elastic deformation of an axial direction. According to this configuration, when a load is applied to the surface of the rubber pin, the rubber pin is immersed smoothly in the shoe sole body. Moreover, since the side part bends uniformly in the axial direction, the stress does not locally become excessive. Therefore, cracking of the side part, rubber | gum cutting, etc. are prevented.

It is preferable that the said shoe sole main body has the rubber pin accommodation chamber opened to the said shoe sole, and the said rubber pin is press-fitted into the said rubber pin accommodation chamber. In this configuration, only the rubber pin is configured as a separate member and is simply assembled to the shoe sole body. As a result, the structure of the fishing shoe is simplified, and a significant increase in the manufacturing cost is avoided.

The rubber pin is preferably formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed in the heel portion of the shoe sole body and the portion extending from the long core to the toe of the sole of the shoe. In this structure, since the structure of a rubber pin is extremely simple, the structure of fishing shoes also becomes simple. Furthermore, the manufacturing cost of fishing shoes does not increase significantly. In addition, a higher anti-slip effect is exhibited by the rubber pins being evenly arranged at the heel portion of the shoe sole body and the portion extending from the center of the sole to the toes.

It is preferable that the shoe bottom is further provided with a mounting member covering an upper surface of the shoe bottom main body facing the outer bottom of the shoe main body, and the mounting member is detachably attached to the outer bottom of the shoe main body. Do. In this case, since the shoe sole is detachable to the shoe main body, there is an advantage that only this can be replaced if the shoe sole is worn. In addition, the rubber pin receiving chamber may be configured as a through-hole installed in the shoe sole body. It is preferable that only the surface of the rubber pin facing the mounting member is fixed to the mounting member. In this case, the rubber pin is inserted into the through hole and fixed to the mounting member by, for example, an adhesive or the like. For this reason, there exists an advantage that the operation | work which assembles a rubber pin to a shoe sole main body becomes extremely simple. In particular, it is preferable that the flange is provided in the surface which opposes the said mounting member of the said rubber pin. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin passes through the through hole from the shoe main body side of the shoe sole main body, and the flange is in contact with the shoe sole main body to maintain the positioning state in the shoe sole main body. And the said mounting member is provided in the upper surface of the said shoe sole main body so that the said flange may be fitted in this state.

It is preferable that the surface of the said rubber pin protrudes in the range of 1 mm-3 mm from the said shoe bottom. In this configuration, when the shoe sole body is pressed against the stone or rock of the fishing ground, the rubber pin is deformed to securely engage the gripping stone or the like. Therefore, a higher antislip effect is exhibited. In addition, when the rubber pin protrudes as described above, the wear rate of the shoe sole body and the wear rate of the rubber pin almost coincide. Therefore, there is an advantage that a high anti-slip effect is maintained.

It is preferable that the thin groove of predetermined depth is provided in the surface of the said rubber pin. As a result, even when the stone or the rock is wet, water existing between the stone and the rubber pin is drained from the thin groove. Thereby, a higher antiskid effect is exhibited. It is preferable that this thin groove is formed in the cross shape on the surface of the said rubber pin. Thereby, there exists an advantage that a higher drainage effect is exhibited.

(4) In order to achieve the above object, the shoe sole according to the present invention includes a shoe sole main body made of felt and a rubber pin provided in the shoe sole main body in the shoe sole provided on the outer bottom of the shoe main body. . This rubber pin has a bottom plate part whose surface is exposed to the lower surface of a shoe sole main body, and the substantially normal side part provided upright in the outer periphery of the said bottom plate part, The surface of the said rubber pin and the surface continuous to the said surface are said shoe soles. It is possible to displace relatively with respect to the main body.

According to this structure, the side part of a rubber pin bends by the load applied to the rubber pin at the time of walking, and the rubber pin itself is immersed in a shoe sole main body. At this time, the rubber pin presses the ground not only by the elasticity of the rubber as the material but also by the restoring force of the fin side portion. This ensures that the rubber pin is securely gripped against the rocks of the fishing field. In addition, since the rubber pins are immersed into the shoe sole body, the shoe sole front always contacts the ground plane. Therefore, the angler can maintain a stable posture without breaking the balance.

In addition, the shoe bottom material is deformed repeatedly forcibly and periodically due to the angler walking in actual use. Therefore, if the respective surfaces of the rubber pin cannot be relatively displaced with respect to the shoe sole body, the deformation of the rubber pin is regulated at the time of deformation of the shoe sole, and as a result, sufficient grip force on the rock of the fishing field, etc. You won't get it. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, a high antislip effect is exerted.

It is preferable that the said rubber pin consists of butyl rubber of 20-20 hardness. In this way, since the rubber pin is made of the above-mentioned butyl rubber, the rubber pin is easily deformed and reliably grips the rock of the fishing field.

It is preferable that the said side part is formed in the crimped hose shape which allows elastic deformation of an axial direction. According to this configuration, when a load is applied to the surface of the rubber pin, the rubber pin is immersed smoothly in the shoe sole body. Moreover, since the side part bends uniformly in the axial direction, the stress does not locally become excessive. Therefore, cracking of the side part, rubber | gum cutting, etc. are prevented.

It is preferable that the said shoe sole main body has the rubber pin accommodation chamber opened to the lower surface of the said shoe sole main body, and the said rubber pin is press-fitted into the said rubber pin accommodation chamber. In this configuration, only the rubber pin is configured as a separate member and is simply assembled to the shoe sole body. As a result, the structure of the shoe sole is simplified, and an increase in manufacturing cost is suppressed.

The rubber pin is preferably formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed in the heel portion of the shoe sole body and the portion extending from the long core to the toe of the sole of the shoe. In this structure, since the structure of a rubber pin is extremely simple, the structure of shoe sole material also becomes simple. Furthermore, the manufacturing cost of shoe soles does not increase significantly. In addition, a higher anti-slip effect is exhibited by the rubber pins being evenly arranged at the heel portion of the shoe sole body and the portion extending from the center of the sole to the toes.

It is preferable that a mounting member is further provided which covers the upper surface of the shoe bottom body facing the outer bottom of the shoe body and is detachably engaged to the outer bottom of the shoe body. In this case, since the shoe bottom material is detachable from the shoe body, if the shoe bottom material is worn, there is an advantage that only this can be replaced. In addition, the rubber pin receiving chamber may be configured as a through-hole installed in the shoe sole body. It is preferable that only the surface of the rubber pin facing the mounting member is fixed to the mounting member. In this case, the rubber pin is inserted into the through hole and fixed to the mounting member by, for example, an adhesive or the like. For this reason, there exists an advantage that the operation | work which assembles a rubber pin to a shoe sole main body becomes extremely simple. In particular, it is preferable that the flange is provided in the surface which opposes the said mounting member of the said rubber pin. The installation of the flange simplifies the work of assembling the rubber pin to the shoe sole body. Specifically, the rubber pin is brought into the through hole, and the flange is in contact with the shoe sole body so that the rubber pin is held in the positioning state in the shoe sole body. And the said mounting member is provided in the upper surface of the said shoe sole main body so that the said flange may be fitted in this state.

It is preferable that the surface of the said rubber pin protrudes in the range of 1 mm-3 mm from the said shoe bottom. In this configuration, when the shoe sole body is pressed against the stone or rock of the fishing ground, the rubber pin is deformed to securely engage the gripping stone or the like. Therefore, a higher antislip effect is exhibited. In addition, when the rubber pin protrudes as described above, the wear rate of the shoe sole body and the wear rate of the rubber pin almost coincide. Therefore, there is an advantage that a high anti-slip effect is maintained.

It is preferable that the thin groove of predetermined depth is provided in the surface of the said rubber pin. As a result, even when the stone or the rock is wet, water existing between the stone and the rubber pin is drained from the thin groove. Thereby, a higher antiskid effect is exhibited. It is preferable that this thin groove is formed in the cross shape on the surface of the said rubber pin. Thereby, there exists an advantage that a higher drainage effect is exhibited.

<Example>

DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, the present invention will be described in detail based on preferred embodiments with reference to the appropriate drawings.

<First Embodiment>

1 is a perspective view of a fishing shoe according to a first embodiment of the present invention, and FIG. 2 is an enlarged cross-sectional view of main parts of the fishing shoe.

This fishing shoe 10 is worn by an angler for walking safely, for example, in a rocky sea fishing. The characteristic of the fishing shoe 10 which concerns on a present Example is the structure of the sole part of the fishing shoe 10. That is, when the fishing shoe 10 is provided with the shoe sole 13 mentioned later, the high slip effect in the walking of a fishing field is exhibited. Incidentally, the angler wears a pair of fishing shoes 10 formed symmetrically, but for the sake of simplicity, the structure of the fishing shoe 10 for the right leg will be described below.

The fishing shoe 10 is provided with the shoe main body 11 and the shoe bottom material 13 provided in the outer bottom face 31 of the shoe main body 11. The shoe main body 11 is provided with the midsole part 12 in the lower part, and the shoe sole 13 is attached to this mid sole part 12. As shown in FIG.

The shoe body 11 has a lining 14, a body rubber 15, reinforcement rubbers 16 to 20, and an insole 21.

The lining 14 is made of, for example, nylon or polyester, and constitutes an inner wall surface of the shoe body 11. The lining 14 is made of nylon and other polyesters, so that the angler is comfortable to wear the fishing shoes 10. The insole 21 is arrange | positioned at the inner bottom part of the enclosure 14. The inner bottom part of the inner bag 14 comprises the mounting part 23 in which a sole is placed when an angler wears the fishing shoe 10. The insole 21 is made of, for example, foamed ethylene vinyl acetate copolymer (foamed EVA), foamed polyurethane (foamed PU), foamed polyethylene (foamed PE), sponge or the like. For this reason, when the angler wears the fishing shoe 10, the said fishing shoe 10 fits in a leg, and the angler wears more comfortably. However, the insole 21 may be omitted.

The main body rubber 15 is arrange | positioned so that the outer peripheral surface except the bottom part of the lining 14 may be enclosed. The main body rubber 15 forms the skeleton of the shoe main body 11. As the main body rubber 15, natural rubber (NR), polyvinyl chloride (PVC), synthetic rubber, etc. are adopted, for example. The reinforcement rubber 16 is arrange | positioned so that the front end part of the shoe main body 11 may be wrapped, and the said part is reinforced. As the reinforcement rubber 16, natural rubber (NR), polyvinyl chloride (PVC), synthetic rubber, or the like is adopted, for example. The reinforcement rubber 17 is arrange | positioned so that the rear end part of the shoe main body 11 may be wrapped, and the said part is reinforced. This reinforcement rubber 17 is provided with the thick part 22 especially. This thick part 22 is provided in the part corresponding to the back of an angler's heel when an angler wears the fishing shoe 10, and the safety of an angler's heel part is ensured. As the reinforcement rubber 17, natural rubber (NR), polyvinyl chloride (PVC), synthetic rubber, or the like is adopted, for example.

The reinforcement rubber 18 is arrange | positioned in the vicinity of the bottom part of the shoe main body 11, and is arrange | positioned along the circumferential direction of the shoe main body 11. That is, this reinforcement rubber 18 is arrange | positioned so that the lower edge part of the shoe main body 11 may be reinforced, and the front end part and the rear end part of the shoe main body 11 are further reinforced. As this reinforcement rubber 18, natural rubber (NR), polyvinyl chloride (PVC), a synthetic rubber, etc. are employ | adopted, for example. The reinforcement rubber 19 is arrange | positioned at the outer side of the said reinforcement rubber 18. The reinforcement rubber 19 is provided in the vicinity of the bottom of the shoe body 11, and is disposed along the circumferential direction of the shoe body 11. As a result, the reinforcement rubber 19 further reinforces the front end and the lower end of the shoe body 11, and the durability and safety of the fishing shoe 10 are improved. As this reinforcement rubber 19, natural rubber (NR), polyvinyl chloride (PVC), synthetic rubber, etc. are employ | adopted, for example. The reinforcement rubber 20 is arrange | positioned at the periphery of the upper opening 36 of the shoe main body 11, the part into which an angler's leg is inserted. This reinforcement rubber 20 reinforces the peripheral part. As this reinforcement rubber 20, natural rubber (NR), polyvinyl chloride (PVC), a synthetic rubber, etc. are employ | adopted, for example.

The midsole part 12 is arrange | positioned at the bottom face 24 of the outer side of the said lining 14. However, the reinforcing sheet 25 is disposed in the peripheral portion of the bottom of the shoe body 11. For this reason, the mid sole part 12 is fixed to the said bottom face 24 through this reinforcement sheet 25 through. The midsole part 12 has a base 26, a sheet member 27, and a cushion member 28. The base 26 is comprised by synthetic rubber etc., for example, and the external shape respond | corresponds to the shape of the said bottom face 24. As shown in FIG. The sheet member 27 is disposed on the upper surface of the base 26, and the cushion member 28 is disposed on the upper surface of the sheet member 27. In other words, the base 26, the sheet member 27, and the cushion member 28 are laminated in order, and they are integrally attached to the bottom face 24 on the outer side of the lining 14. The bottom of the base 26 constitutes the outer bottom 31 of the shoe body 11. This outer bottom surface 31 is provided with the recessed part 32 in which the shoe bottom material 13 mentioned later is mounted.

The sheet member 27 consists of a board | plate material. As the material constituting the sheet member 27, rubber, felt, plastic, metal, or the like can be adopted, for example, in addition to the paper material impregnated with resin. The cushion member 28 is comprised by foam molding members, such as foamed ethylene vinyl acetate copolymer, foamed synthetic rubber, foamed natural rubber, foamed urethane, and a felt material. In addition, in this embodiment, although the cushion member 28 is laminated | stacked on the upper surface of the sheet member 27, the cushion member 28 is arrange | positioned on the upper surface of the base 26, and the sheet member 27 is provided on the upper surface of the seat member 27 It may be arranged. However, these sheet members 27 and cushion members 28 may be omitted.

3 is a partially exploded perspective view of the shoe sole 13.

As shown in FIG. 2 and FIG. 3, the shoe sole 13 is detachably attached to the outer bottom surface 31 of the shoe body 11. The shoe sole 13 has a mounting plate portion 33 (mounting member), a felt member 34 provided on the mounting plate portion 33 (shoe sole body), and a rubber pin 35 provided on the mounting plate portion 33. .

The felt member 34 is formed in the shape corresponding to the outer bottom surface 31 of the said shoe main body 11. Specifically, the external shape of the felt member 34 is formed so that it may fit suitably in the recessed part 32 provided in the said outer bottom surface 31. As shown in FIG. The thickness dimension of the felt member 34 is set to 10.0 mm-20.0 mm. The felt member 34 is comprised by the fiber gathering in three dimensions and without regularity of a direction. As a kind of fiber, natural fiber, such as a palm pattern fiber and a hemp, besides synthetic fiber, such as nylon and polyester, can be employ | adopted, for example. Moreover, the mounting plate part 33 is a flat plate-shaped member with a thin thickness, and the upper surface 39 of the felt member 34 (the lower surface of the felt member 34 in FIG. 3). Covering. The mounting plate part 33 consists of nonwoven fabric which contains synthetic fiber, such as nylon and polyester, for example.

In this embodiment, a fastener mechanism is formed between the mounting plate portion 33 and the wall surface of the concave portion 32. That is, the fiber is formed in a loop shape on the surface (the lower surface in FIG. 3) of the mounting plate part 33, and the fiber is hooked on the inner surface of the recess 32. It is formed in a) phase. Therefore, when the shoe sole 13 is inserted into the recess 32, the mounting plate 33 is detachably engaged with the wall surface of the recess 32 with a constant holding force. As a result, the shoe sole 13 is detachably held to the midsole portion 12 with a constant holding force. First of all, the mounting plate part 33 is comprised with a loop tape, and the hook tape which engages with this loop tape may be provided in the said recessed part 32.

The rubber pin 35 is formed in the cylinder shape whose outer diameter dimension was set to 10.0 mm-20.0 mm, and is embedded in the felt member 34. In this embodiment, 17 rubber pins 35 are provided on the felt member 34. However, the number of rubber pins 35 is not limited to 17, but may be appropriately set in the range of 5 to 30. In addition, the rubber pin 35 is arrange | positioned in the area | region other than the area | region W corresponding to the long core of a sole, for example. Specifically, five rubber pins are equally arranged in the region corresponding to the heel portion, and twelve rubber pins are equally arranged in the region corresponding to the portion from the sole of the sole to the toe. The hardness of the rubber pin 35 may be set in the range of 10 to 60. Hardness in this case is durometer type A hardness based on JIS K # 6263. However, the hardness of the rubber pin is preferably set to 15 to 45, more preferably 20 to 40. And the rubber which comprises the rubber pin 35 is employ | adopted the synthetic rubber (for example, butyl rubber) which copolymerized predetermined amount of isoprene with isobutylene. In the present embodiment, the rubber pin 35 is made of a compound rubber in which the main component of the polymer is butyl.

The felt member 34 is equipped with 17 rubber pin accommodation chambers 37. This rubber pin accommodation chamber 37 consists of a recessed part which has an opening in the lower surface 40 (shoe sole) of the felt member 34. As shown in FIG. The number of rubber pin accommodation chambers 37 corresponds to the number of rubber pins 35. The rubber pin accommodation chamber 37 corresponds to the external shape of the rubber pin 35, and in this embodiment, the inner wall surface shape of the rubber pin accommodation chamber 37 is formed in the column shape. The inner diameter dimension of the rubber pin accommodation chamber 37 corresponds to the outer diameter dimension of the rubber pin 35, whereby the rubber pin 35 is press-fit into the rubber pin accommodation chamber 37. . In the state where each rubber pin 35 is fitted in the rubber pin accommodation chamber 37, the surface 38 of each rubber pin 35 (a surface exposed to the sole of the shoe) is the lower surface 40 of the felt member 34. ) And is smoothly continuous with the lower surface 40.

In the present embodiment, each rubber pin 35 has only its upper surface 41 (a surface facing the mounting member) fixed to the mounting plate portion 33. That is, the said rubber pin accommodation chamber 37 is comprised as the through-hole which penetrates the felt member 34 in the thickness direction, and each rubber pin 35 is inserted in this rubber pin accommodation chamber 37, However, the surface 38 of the rubber pin 35 (the surface exposed to the sole of the shoe) and the circumferential surface 42 (the surface exposed to the sole of the shoe and the surface adjacent to each other) are not fixed to the felt member 34. Thereby, the surface 38 and the circumferential surface 42 of each rubber pin 35 can be displaced relatively with respect to the felt member 34.

This fishing shoe 10 is manufactured as follows generally. In the manufacture of the fishing shoe 10, a new bone (a bone used when making shoes) is used. First, this lining is covered with the lining 14. The main body rubber 15 is covered to surround the lining 14. Next, the cushion member 28 and the sheet member 27 are attached to the bottom of the inner cover 14, and the said reinforcement sheet 25 and each reinforcement rubber 16-20 are attached in order. The base 26 of the midsole portion 12 is attached to surround the bottom of the shoe body 11. The said main body rubber 15, each reinforcement rubber 16, etc., and the base 26 are adhered by the existing adhesive agent, a vulcanization process, etc. The insole 21 is inserted from the upper opening 36 of the shoe body 11 and is disposed at the inner bottom of the shoe body 11. In addition, the shoe sole 13 is assembled in advance as a separate component. The shoe sole 13 is inserted into the recess 32 of the midsole portion 12 and is fixed to the midsole portion 12 via the fastener mechanism. In addition, in the present embodiment, the shoe sole 13 is detachably attached to the shoe main body 11, but the shoe sole 13 may be fixed to the shoe main body 11.

When the angler walks by wearing the fishing shoe 10 according to the present embodiment, the weight of the angler acts on the shoe bottom 13, and the felt member 34 is pressed against the stone or rock of the fishing field. At this time, since the surface 38 of the rubber pin 35 is exposed to the sole of the shoe, the felt member 34 and the surface 38 of the rubber pin 35 are pressed against stones or rocks. In addition, since the rubber pin 35 is made of the butyl rubber of the above hardness, the rubber pin 35 is easily deformed and reliably grips the rock of the fishing field. That is, since the felt member 34 and the rubber pin 35 mutually exert an anti-slip effect, the fishing shoe 10 exhibits a high anti-slip effect irrespective of the situation of a fishing field.

In particular, in this embodiment, the shoe bottom material 13 is provided with the said mounting plate part 33, This mounting plate part 33 is attached to the outer bottom surface 31 of the shoe main body 11 so that attachment or detachment is possible. Thereby, since the shoe sole 13 is detachable with respect to the shoe main body 11, when the shoe sole 13 is worn, there exists an advantage that only this can be replaced with a new article.

Furthermore, since the shoe sole material 13 is comprised by the rubber pin 35 being pressed into the rubber pin accommodation chamber 37 of the felt member 34, only the rubber pin 35 is comprised as a separate member. By this, the rubber pin 35 is simply assembled to the felt member 34. As a result, the structure of the fishing shoe 10 is simplified, and a significant rise in manufacturing cost is avoided. In addition, since the rubber pin 35 is formed in the cylinder shape mentioned above, the structure of the rubber pin 35 is extremely simple, and the structure of the fishing shoe 10 becomes simpler. In addition, since the rubber pin 35 is equally arranged in the area | region corresponding to the heel part of the felt member 34, and the area | region corresponding to the part from the long core to the toe of a sole, the higher anti-slip effect is exhibited. There is an advantage.

In particular, in this embodiment, the surface 38 and the circumferential surface 42 of the rubber pin 35 can be relatively displaced with respect to the felt member 34. By the way, when the angler walks a fishing field wearing this fishing shoe 10, the felt member 34 deforms. Thus, if the surface 38 and the circumferential surface 42 of the rubber pin 35 cannot be relatively displaced relative to the felt member 34, the deformation of the rubber pin 35 is regulated when the angler walks. As a result, it is impossible to obtain sufficient grip on the rocks of the fishing field. However, in this fishing shoe 10, since the deformation | transformation of the rubber pin 35 is fully allowed, even when an angler walks through a fishing field, a high slippery effect is exhibited. In addition, specifically, the structure which allows the deformation | transformation of the rubber pin 35, the rubber pin 35 is inserted in the rubber pin accommodation chamber 37, and only the upper surface 41 of the rubber pin 35 is a mounting plate part. Since it is realized by being fixed to 33, there is an advantage that the operation of assembling the rubber pin 35 to the felt member 34 is extremely simple.

<2nd Example>

Next, a second embodiment of the present invention is described. 4 is a perspective view of a rubber pin 50 according to a second embodiment of the present invention, and FIG. 5 is a cross-sectional view showing a mounting method of the rubber pin 50.

The fishing shoe 10 according to the second embodiment differs from the fishing shoe 10 according to the embodiment as shown in FIG. 4, wherein the rubber pin 50 has a cylindrical portion 51 and a flange. As shown in FIG. 5, the flange 52 is attached to the point provided with the 52, the groove 53 and 54 which are provided in the cylindrical part 51, and this rubber pin 50. As shown in FIG. It is a point attached so that it may fit between the board part 33 and the felt member 34. FIG. In addition, about another structure, it is the same as the said fishing shoes 10.

The rubber pin 50 is formed of the same material as the rubber pin 35. The cylindrical portion 51 of the rubber pin 50 has the same shape as the rubber pin 35. And the flange 52 is integrally formed in the upper surface of this cylindrical part 51. As shown in FIG. The said thin groove 53 and the thin groove 54 are provided in the surface 38 of the cylindrical part 51, and orthogonally cross each other. In other words, a cross-shaped thin groove is formed in the surface 38 of the cylindrical portion 51. In the present embodiment, two thin grooves 53 and 54 are provided, and they are orthogonal to each other, but the number, the crossing angle, and the like of the thin grooves are not particularly limited, that is, the surface 38 of the cylindrical portion 51. What is necessary is just to form the groove | channel to go to. The width dimension d of these thin grooves 53 and 54 may be set to about 0.2 mm to 2.0 mm. In addition, each of the thin grooves 53 and 54 extends only the dimension c in the axial direction of the cylindrical portion 51. This dimension (c) is a depth dimension of the thin grooves 53 and 54 and can be set to about 5 mm to 15 mm.

This rubber pin 50 is inserted in the rubber pin accommodation chamber 37 of the felt member 34 as shown in FIG. Specifically, the cylindrical portion 51 is fitted from the upper surface 39 side (shoe body 11 side) of the felt member 34. Since the flange 52 is provided in the cylinder part 51, when the cylinder part 51 is inserted into the rubber pin accommodation chamber 37, the flange 52 will contact the upper surface 39 of the felt member 34. do. In this state, the mounting plate portion 33 is fixed to the upper surface 39 of the felt member 34. That is, the flange 52 is sandwiched between the felt member 34 and the mounting plate part 33, and the rubber pin 50 is firmly fixed to the felt member 34. Here, the length dimension of the cylinder part 51 is set to become longer than the thickness dimension of the felt member 34. Therefore, in the state in which the rubber pin 50 is attached to the felt member 34, the front-end | tip part of the cylindrical part 51 protrudes from the lower surface 40 of the felt member 34. As shown in FIG. This protruding dimension a is set to 1.0 mm-3.0 mm.

In the present embodiment, since the rubber pin 50 has the flange 52, the rubber pin 50 is securely fixed to the felt member 34 as described above, and the rubber pin 50 is removed. There is an advantage that the work to be assembled to the felt member 34 becomes simpler.

In addition, since the surface 38 of the rubber pin 50 protrudes from the lower surface 40 of the felt member 34, when the felt member 34 is pressed against the stone or rock of the fishing field, the rubber pin 50 It is securely engaged to deform and grip the stone or the like. Therefore, a higher antislip effect is exhibited. In addition, since the rubber pin 50 protrudes as described above, the wear rate of the felt member 34 and the wear rate of the rubber pin 50 substantially coincide. Therefore, there is an advantage that a high anti-slip effect is maintained.

In addition, since the fine grooves 53 and 54 are provided in the rubber pin 50, even when the stone or the rock is wet, water existing between the stone and the rubber pin 50 is contained in the rubber pin ( Discharged around 50). Thereby, a higher antiskid effect is exhibited. In this embodiment, since these thin grooves 53 and 54 are formed crosswise on the surface 38 of the rubber pin 50, there exists an advantage that a higher drainage effect is exhibited.

<Third Embodiment>

Next, a third embodiment of the present invention will be described. 6 is an enlarged cross-sectional view of the main portion of the fishing shoe according to the third embodiment of the present invention.

In each of the above-described embodiments, although the shoe bottom member 13 is constituted by the felt member 34 and the mounting plate portion 33 covered on the upper surface 39 of the felt member 34, for example, FIG. 6. As shown in the figure, the bottom plate member 45 is disposed on the upper surface 39 of the felt member 34, and the mounting plate portion 33 is disposed on the upper surface of the bottom plate member 45. It may be formed in a laminated structure. In this case, only the upper surface 41 of each rubber pin 35 is fixed to the bottom plate member 45, and each rubber pin 35 is attached to the felt member 34.

Here, the bottom plate member 45 is made of a plate material. As the material constituting the bottom plate member 45, for example, natural rubber (NR), polyvinyl chloride (PVC) and other synthetic rubbers, fat-impregnated paper, foamed ethylene vinyl acetate copolymer, foamed synthetic Various things, such as foam molding members, such as rubber | gum, foaming natural rubber, and urethane, can be employ | adopted, At least, rigidity is higher than the felt member 34, and a thin thing is preferable. If the shoe flooring material 13 formed by the laminated structure shown in FIG. 6 is used, even if the material with high flexibility is used for the felt member 34, the rigidity of the whole shoe flooring material 13 can be ensured. have. In addition, even when the present fishing shoe 10 is used and the felt member 34 wears and becomes thin, the rigidity which is considered necessary for the shoe bottom material 13 can be secured by the bottom plate member 45.

<Fourth Example>

Next, a fourth embodiment of the present invention is described below. 7 is a perspective view of a rubber pin 60 according to the fourth embodiment of the present invention. FIG. 8 is a longitudinal sectional view of the rubber pin 60, and the VIII-VIII front end section of FIG. 9 is an enlarged sectional view of the main portion of the shoe bottom material 13 having the rubber pin 60, and FIG. 10 shows the main part of the shoe bottom material 13 when a load is applied to the surface 38 of the rubber pin 60. FIG. It is an enlarged cross section.

The fishing shoe according to the embodiment relates to the improvement of the fishing shoe 10 according to each of the above-described embodiments. In detail, it is related with the improvement of the rubber pin 35 and the rubber pin 50 used for the fishing shoe 10 which concerns on each Example mentioned above.

As described above, the configuration in which the tip end portion of the cylindrical portion 51 of the rubber pin 50 protrudes from the lower surface 40 of the felt member 34 is adopted, whereby the wear rate of the felt member 34 and the rubber pin ( It is expected that the abrasion speed of 50) can be almost matched. However, the wear of the bottom of the fishing shoe 10 may be remarkably different depending on the usage aspect of the fishing shoe 10 and the state of the foot of the fishing place to be used.

For example, when the fishing shoe 10 is used in a pier with a flat surface, such as a concrete surface, since the entire ground of the shoe is grounded when walking, wear of the rubber pin 50 protruding from the bottom surface is worn. The speed may be faster than the wear rate of the felt member 34. On the other hand, when the fishing shoe 10 is used in a place with a lot of rough rocks, such as a rock, the rubber pin 50 grips firmly on a stone or a rock, and it is easy to move in a place where a lot of rocks of an angler are. The felt member 34 is violently shaved by the rough surface of the rock although it is removed. Therefore, in the place where there are many rocks of rough surface, the wear rate of the felt member 34 may be faster than the wear rate of the rubber pin 50. When the fishing shoe 10 is used in a place where the rough rock is large, the felt member 34 decreases due to abrasion, and the protrusion of the rubber pin 50 protrudes from the bottom of the fishing shoe 10. The amount is remarkably large. As such, when the fishing shoe 10 is worn in a state where the amount of protrusion of the rubber pin 50 is greatly deformed, there is a fear that the angler's stable posture and walking may be hindered. Moreover, since it is uncomfortable to a feeling of wearing at the time of actual fishing, it becomes impossible to make comfortable fishing, and it is not preferable. Furthermore, when the amount of protrusion of the rubber pin 50 increases, the deformation amount of the rubber pin 50 itself increases, which may cause a problem that the rubber pin 50 is easily broken.

Therefore, in this embodiment, a rubber pin 60 having a shape different from that of the rubber pin 35 and the rubber pin 50 applied to the fishing shoe 10 according to each embodiment described above is employed. Specifically, while the rubber pins 35 and the rubber pins 50 are formed of rubber lumps, the rubber pins 60 have an inner portion of the cylindrical portion 51 as shown in FIGS. 7 and 8. Is substantially different from the above-mentioned rubber pin 35 and rubber pin 50 in that the hollow shape is formed. In addition, the other structure of the rubber pin 70 and the other structure of a fishing shoe are common with the fishing shoe 10 mentioned above. Therefore, in this embodiment, detailed description of common components is omitted.

Below, the rubber pin 60 which has the flange 52 as a modification of the rubber pin 50 is demonstrated in detail.

The rubber pin 60 is formed of the same material as the rubber pin 35 and the rubber pin 50, that is, the hardness of 15 to 45, more preferably 20 to 40 butyl rubber. Since the rubber pin 60 is made of the butyl rubber of the hardness, the rubber pin 60 is easily deformed and reliably grips against rocks of the fishing field. As a result, the fishing shoe 10 exhibits a high anti-slip effect regardless of the situation of the fishing ground. In addition, this butyl rubber is a simple example of the material which comprises the rubber pin 60, For example, natural rubber (NR), polyvinyl chloride (PVC), other synthetic rubber, etc. are the material of the rubber pin 60. It can be employed as.

As shown in FIG. 7 and FIG. 8, the cylindrical part 51 of the rubber pin 60 is comprised by the bottom plate part 63 and the side part 62 integrally formed in the said bottom plate part 63. The bottom plate portion 63 has a surface 38 that is exposed to the sole of the shoe. In the bottom plate portion 63, similar to the rubber pin 50, two thin grooves 53 and 54 are orthogonal to each other.

The bottom plate portion 63 is constituted as a rubber mass having a certain thickness because the surface 38 may be pressed against the stones or rocks and gradually wear out when walking. Although the thickness of the bottom plate part 63 is an element which can be set suitably according to the material of the rubber pin 60, the use purpose of the fishing shoe 10, etc., it is generally set in the range of 5 mm-10 mm. As mentioned above, since the external dimension of the cylindrical part 51 of the rubber pin 60 is 10.0 mm-20.0 mm, the said bottom plate part 63 has shown the cylindrical shape with low height.

The said side part 62 is provided in the perpendicular direction from the outer peripheral part of the bottom plate part 63, and is formed in substantially cylindrical shape. Therefore, the bottom plate part 63 constitutes the bottom face of the inner hole 61 of the side part 62. The thickness of the side part 62 is determined by the rubber hardness of the rubber pin 60, the number of rubber pins 60 disposed in the fishing shoe 10, or the like. In addition, the side part 62 is not limited to a substantially cylindrical shape. For example, the cross section may be formed in a rectangular shape.

The flange 52 is integrally formed in the upper surface of the side part 62, ie, the upper surface of the cylindrical part 51 of the rubber pin 60. As shown in FIG. The flange 52 exhibits an annular shape in plan view, and extends outwardly from the upper circumference of the upper surface of the cylindrical portion 51 to the sunshade. The upper surface of the cylinder part 51 is not occluded, Therefore, the inner hole 61 of the side part 62 formed in the cylindrical shape is opened. In addition, although the rubber pin 60 which has the flange 52 is demonstrated in this embodiment, the flange 52 may be abbreviate | omitted.

When the fishing shoe 10 according to the present embodiment is used in a place with a lot of rough rocks, such as a rock, the angler's weight acts on the shoe bottom 13, and the felt member 34 is a stone or rock of the fishing ground. Is pressed in. At this time, the felt member 34 and the rubber pin 60 interact with each other, and exhibit a high anti-slip effect. On the other hand, the felt member 34 is gradually cut by the stone or rock of a fishing field. For example, as a result of using the fishing shoe 10 a plurality of times, as shown in FIG. 9, the felt member 34 is shaved and reduced, so that the projected dimensions (a, 1.0 mm) of the rubber pin 60 set in advance. ~ 3.0 mm) may be enlarged to the dimensions (e,> a). As FIG. 9 shows, since the surface 38 of the rubber pin 60 is exposed to the sole of a shoe, the weight of an angler acts and a load is applied to the rubber pin 60 from the arrow P direction in a figure. . At this time, as shown in FIG. 10, the side part 62 of the rubber pin 60 bends inward by the applied load.

As a result of the side 62 being bent inwardly, the rubber pin 60 is immersed into the felt member 34. At this time, in addition to the rubber original elastic force, the rubber pin 60 generates a pressing force in a direction in which the deflection of the side portion 62 is restored and the load from the arrow P direction is returned. Therefore, a rubber pin surely grips many places, such as rocky rocks. In addition, since the rubber pin 60 is immersed into the felt member 34, the sole bottom front always contacts the ground plane. Therefore, the angler keeps stable walking and standing posture without breaking the balance.

In addition, as long as the said side part 62 is formed in substantially cylindrical shape, what kind of shape may be employ | adopted. For example, in place of the rubber pin 60, as shown in FIG. 11, the rubber pin formed in the form of a pleated hose allowing the side portion 62 to elastically deform in the axial direction (up and down direction in FIG. 11). It is also possible to employ 70. Here, FIG. 11 is a longitudinal cross-sectional view of the rubber pin 70, and FIG. 12 is an enlarged sectional view of the main part of the shoe bottom material 13 provided with the rubber pin 70. As shown in FIG. FIG. 13 is an enlarged cross-sectional view of the main portion of the shoe bottom member 13 when a load is applied to the surface 38 of the rubber pin 70.

In a fishing shoe provided with such a rubber pin 70 in the shoe bottom material 13, when the load is applied to the surface 38 of the rubber pin 70, the rubber pin 70 protrudes from the shoe bottom. From FIG. 12, as shown in FIG. 13, the operation until the rubber pin 70 is immersed in the felt member 34 is easily and smoothly performed. Further, the crimping hose shape of the side portion 62 increases the pressing force in the direction in which the load from the arrow P direction is returned, and the rubber pins 70 are gripped more reliably in places where there are many rocks such as sea rocks. Furthermore, since the side portion 62 is formed in a corrugated hose shape, the side portion 62 is bent uniformly in the axial direction of the rubber pin 70, that is, the direction perpendicular to the sole of the shoe, so that the stress is locally excessive. It does not go away. Therefore, the crack of the side part 62, rubber | gum cutting, etc. are prevented.

Industrial availability

The present invention can be applied to fishing shoes used in sea rocks or rivers.

According to the present invention, since the shoe sole body made of felt and the rubber pin are reliably gripped on the rock of the fishing field, and so on, the high action of the anti-slip effect is exhibited regardless of the situation of the fishing ground.

Claims (42)

A shoe body into which the angler's legs can be inserted, With the shoe bottom installed on the outer bottom of the shoe body, Shoe flooring, Shoe sole body made of felt (felt) mounted to the outer bottom surface, With rubber pins installed on the sole of the shoe so that the surface is exposed to the sole of the shoe, The rubber pin is a fishing shoe composed of butyl rubber having a hardness of 20 to 40. The method of claim 1, The shoe sole body has a rubber pin accommodation chamber that opens in the shoe sole, The rubber fin is a fishing shoe that is press-fit into the rubber fin storage chamber. The method according to claim 1 or 2, The rubber pin is formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed on the heel portion of the shoe sole body and the portion extending from the long core of the sole to the toe. Fishing shoes. The method according to claim 1 or 2, The surface of the said rubber pin and the surface continuous to the said surface are fishing shoes relatively displaceable with respect to the said shoe sole body. The method according to claim 1 or 2, The shoe bottom material is further provided with a mounting member covering an upper surface of the shoe bottom body facing the outer bottom surface of the shoe body, The said mounting member is fishing shoes provided in the outer bottom surface of the said shoe main body so that attachment or detachment is possible. The method of claim 5, The rubber pin accommodation chamber is composed of a through hole provided in the shoe sole body, A fishing shoe wherein only a surface of the rubber pin facing the mounting member is fixed to the mounting member. The method of claim 6, Fishing shoes are provided with a flange on the surface of the rubber pin facing the mounting member. The method according to claim 1 or 2, The surface of the rubber pin, fishing shoes protruding in the range of 1mm ~ 3mm from the bottom of the shoe. The method according to claim 1 or 2, Fishing shoes are provided with a thin groove of a predetermined depth on the surface of the rubber pin. The method of claim 9, The thin groove is a fishing shoe formed crosswise on the surface of the rubber pin. In the shoe bottom installed on the outer bottom of the shoe body, Shoe sole body made of felt, A rubber pin installed on the shoe sole body so that the surface thereof is exposed to the lower surface of the shoe sole body, The rubber pin is a shoe sole made of butyl rubber having a hardness of 20 to 40. The method of claim 11, The shoe sole body has a rubber pin accommodation chamber that opens to a lower surface of the shoe sole body, The rubber pin is a shoe sole material pressed into the rubber pin accommodation chamber. The method according to claim 11 or 12, wherein The rubber pin is a shoe sole having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed in the heel portion of the shoe sole body and the portion extending from the center of the sole to the toe. The method according to claim 11 or 12, wherein The surface of the said rubber pin and the surface continuous to the said surface are shoe soles which can be displaced relatively with respect to the said shoe sole body. The method according to claim 11 or 12, wherein And a mounting member covering an upper surface of the shoe bottom body facing the outer bottom of the shoe body and detachably engaged to the outer bottom of the shoe body. The method of claim 15, The rubber pin accommodation chamber is made of a through hole provided in the shoe sole body, The shoe sole having only the surface facing the mounting member of the rubber pin fixed to the mounting member. The method of claim 16, Shoe sole provided with a flange on a surface opposing said mounting member of said rubber pin. The method according to claim 11 or 12, wherein The surface of the said rubber pin, the shoe sole which protrudes in the range of 1 mm-3 mm from the lower surface of the said shoe sole main body. The method according to claim 11 or 12, wherein Shoe sole is provided with a thin groove of a predetermined depth on the surface of the rubber pin. The method of claim 19, The thin groove is a shoe sole formed in a cross shape on the surface of the rubber pin. A shoe body into which the angler's legs can be inserted, With the shoe bottom installed on the outer bottom of the shoe body, Shoe flooring, Shoe sole body made of felt attached to the outer bottom surface, And a rubber pin installed on the shoe sole body, The rubber pin has a bottom plate part whose surface is exposed to the sole of a shoe, and a substantially normal side part which is set up on the outer periphery of the bottom plate part, and the rubber A fishing shoe, wherein the surface of the fin and the surface continuous to the surface are relatively displaceable with respect to the shoe sole body. The method of claim 21, The rubber pin is a fishing shoe consisting of butyl rubber having a hardness of 20 to 40. The method of claim 21 or 22, The said side part is a fishing shoe formed in the shape of the crimping hose which allows elastic deformation of an axial direction. The method of claim 21 or 22, The shoe sole body has a rubber pin accommodation chamber that opens to the shoe sole, The rubber pin is a fishing shoe that is pressed into the rubber pin accommodation chamber. The method of claim 21 or 22, The rubber pin is formed in a cylindrical shape having an outer diameter of 10 mm to 20 mm in diameter, and is disposed evenly on the heel portion of the shoe sole body and the part extending from the center of the sole to the toe. The method of claim 21 or 22, The shoe bottom material is further provided with a mounting member covering the upper surface of the shoe bottom body facing the outer bottom surface of the shoe body, The said mounting member is fishing shoes which are attached to the outer bottom surface of the said shoe main body so that attachment or detachment is possible. The method of claim 26, The rubber pin accommodation chamber is made of a through hole provided in the shoe sole body, Fishing shoes, wherein only a surface of the rubber pin facing the mounting member is fixed to the mounting member. The method of claim 27, Fishing shoes are provided with a flange on the surface of the rubber pin facing the mounting member. The method of claim 21 or 22, The surface of the rubber pin, fishing shoes protruding in the range of 1mm ~ 3mm from the bottom of the shoe. The method of claim 21 or 22, Fishing shoes are provided with a thin groove of a predetermined depth on the surface of the rubber pin. The method of claim 30, The thin groove is a fishing shoe formed crosswise on the surface of the rubber pin. In the shoe bottom installed on the outer bottom of the shoe body, Shoe sole body made of felt, And a rubber pin installed on the shoe sole body, The rubber pin has a bottom plate portion whose surface is exposed to the bottom surface of the shoe sole body and an approximately normal side portion which is set up on the outer periphery of the bottom plate portion, and the surface of the rubber pin and the surface continuous to the surface are the shoe soles. Shoe soles displaceable relative to the body. 33. The method of claim 32, The rubber pin is a shoe sole made of butyl rubber having a hardness of 20 to 40. 34. The method of claim 32 or 33, The side part is a shoe sole formed in the form of a pleated hose that allows elastic deformation in the axial direction. 34. The method of claim 32 or 33, The shoe sole body has a rubber pin accommodation chamber that opens to a lower surface of the shoe sole body, The rubber pin is a shoe sole material pressed into the rubber pin accommodation chamber. 34. The method of claim 32 or 33, The rubber pin is a shoe sole having an outer diameter of 10 mm to 20 mm in diameter, and is equally disposed in the heel portion of the shoe sole body and the portion extending from the center of the sole to the toe. 34. The method of claim 32 or 33, And a mounting member covering an upper surface of the shoe bottom body facing the outer bottom of the shoe body and detachably engaged to the outer bottom of the shoe body. The method of claim 37, The rubber pin accommodation chamber is made of a through hole provided in the shoe sole body, The sole flooring material in which only a surface of the rubber pin facing the mounting member is fixed to the mounting member. The method of claim 38, Shoe sole provided with a flange on a surface opposing said mounting member of said rubber pin. 34. The method of claim 32 or 33, The surface of the said rubber pin, the shoe sole which protrudes in the range of 1 mm-3 mm from the lower surface of the said shoe sole main body. 34. The method of claim 32 or 33, Shoe sole is provided with a thin groove of a predetermined depth on the surface of the rubber pin. The method of claim 41, wherein The thin groove is a shoe bottom material formed crosswise on the surface of the rubber pin.

Images