JP5002170B2 - Sole material and fishing shoes - Google Patents

Description

  The present invention relates to a structure of a shoe sole material used for a fishing shoe, particularly a shoe sole of a fishing shoe.

  For example, in carp fishing and river fishing, anglers walk on stones and rocks. Such fishing ground stones and rocks are generally wet, and moss is often attached. Therefore, various improvements have been added to the soles 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 material is made of felt, (a) the shoe sole is provided with spike pins, (c) the suction sole on the shoe sole. There are some that are provided. Fishing shoes with these improvements exhibit a certain anti-skid effect under certain conditions (fishing environment). That is, for example, when the heel is made of flat rock and is not very wet, it is preferable that the sole material is made of felt, and when the heel has soft moss and is always wet The shoe sole is preferably provided with a spike pin.

Registered Utility Model No. 3015346 JP 2002-282009 A Japanese Patent Laid-Open No. 2002-306 JP-A-4-279102 JP 2002-282008 A Japanese Patent Laid-Open No. 7-8301

  However, the fishing ground environment varies, and the rock surface may be smooth or wet and rough. There are also cases where soft moss grows on the rock surface and relatively hard seaweed grows. In conventional fishing shoes, it has been difficult to exhibit an excellent anti-slip effect corresponding to such various environments. For example, a fishing shoe with a spike pin on the shoe sole shows an excellent anti-skid effect on rough rocks, but it does not necessarily show a high anti-skid effect in places where moss is growing. could not.

  SUMMARY OF THE INVENTION An object of the present invention is to provide a fishing shoe that exhibits an excellent anti-slipping effect even under any environment in a fishing spot and a shoe sole material used therefor.

(1) In order to achieve the above object, a fishing shoe according to the present invention has a shoe body into which a fisherman's foot can be inserted, and a shoe sole material provided on the outer bottom surface of the shoe body. The sole material includes a sole body made of felt attached to the outer bottom surface and a rubber pin provided on the sole body. The rubber pin has a bottom plate portion whose surface is exposed to the shoe sole, and a substantially cylindrical side portion erected on the outer peripheral edge of the bottom plate portion, and the side portion includes the surface of the rubber pin and the rubber plate. It is formed in a bellows shape that allows elastic deformation in the axial direction so that a surface continuous with the surface can be displaced relative to the shoe sole body.

  The angler inserts his feet into the shoe body and wears fishing shoes. When the angler wears fishing shoes and walks, the sole body presses against rocks and rocks at the fishing ground. When fishing shoes are used on rough rocks, etc., the sole body made of felt is lost due to wear, and as a result, the rubber pin may protrude significantly from the sole. According to the above-described configuration, the side portion of the rubber pin is bent by the load applied to the rubber pin during walking, and the rubber pin itself is immersed in the sole body. At this time, the rubber pin presses the ground not only by the elasticity of the rubber as a material but also by the restoring force of the bent side portion. This ensures that the rubber pin grips against rocks in the fishing ground. Moreover, since the rubber pin is immersed in the sole body, the entire sole surface is always in contact with the ground contact surface. Therefore, the angler can maintain a stable standing posture without losing balance.

  Further, when the fisherman walks, the shoe sole body is deformed. Therefore, if each surface of the rubber pin cannot be displaced relative to the sole body, the deformation of the rubber pin is restricted when the angler walks, and as a result, sufficient for the rocks of the fishing ground. Grip power cannot be obtained. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, even if the angler walks around the fishing ground, a high antiskid effect is exhibited.

It said side portions, from being formed in a bellows shape to allow axial elastic deformation, when a load is applied to the surface of the Gomupin, immersive of Gomupin to shoe sole body can be smoothly performed. Further, since the side portion is uniformly bent in the axial direction, the stress is not excessively increased locally. As a result, cracks on the side portions and rubber cuts are prevented.

  The rubber pin is preferably made of butyl rubber having a hardness of 20 to 40. Thus, since the rubber pin is made of butyl rubber having the above-mentioned hardness, the rubber pin is easily deformed and securely grips against rocks and the like of the fishing ground.

  Preferably, the shoe sole body has a rubber pin housing chamber that opens to the shoe sole, and the rubber pin is press-fitted into the rubber pin housing chamber. In this configuration, only the rubber pin is configured as a separate member and can be easily assembled to the sole body. As a result, the structure of the fishing shoe is simplified and a significant increase in manufacturing cost is avoided.

  The rubber pins are formed in a columnar shape having an outer diameter of 10 mm to 20 mm, and are preferably arranged in parallel at the heel portion of the shoe sole body and the portion from the arch to the toe. In this configuration, since the structure of the rubber pin is very simple, the structure of the fishing shoe is also simple. As a result, the manufacturing cost of fishing shoes does not increase significantly. In addition, since the rubber pins are evenly arranged on the heel portion of the sole body and the portion from the arch to the toes, a higher antiskid effect is exhibited.

  The shoe sole material further includes an attachment member that covers an upper surface of the shoe sole body facing the outer bottom surface of the shoe body, and the attachment member is detachably provided on the outer bottom surface of the shoe body. It is preferable. In this case, since the shoe sole material is detachable from the shoe main body, if the shoe sole material is worn, there is an advantage that only this can be replaced. Further, the rubber pin housing chamber may be configured from a through hole provided in the shoe sole body. And 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 is fixed to the mounting member with, for example, an adhesive. For this reason, there exists an advantage that the operation | work which assembles | attaches a rubber pin to a shoe sole main body becomes very easy. In particular, it is preferable that a flange is provided on the surface of the rubber pin facing the mounting member. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin is inserted into the through hole from the shoe main body side of the shoe sole body, and the flange is brought into contact with the shoe sole body, whereby the rubber pin is held in a positioned state by the shoe sole body. And the said attachment member is provided in the upper surface of the said shoe sole main body so that the said flange may be inserted | pinched in this state.

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

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

(2) In order to achieve the above object, the sole material according to the present invention is a sole material provided on the outer bottom surface of the shoe body, and is provided on the sole body made of felt and the sole body. With rubber pins. The rubber pin has a bottom plate portion whose surface is exposed on the lower surface of the shoe sole body, and a substantially cylindrical side portion erected on the outer peripheral edge portion of the bottom plate portion, and the side portion is formed of the rubber pin. It is formed in a bellows shape that allows elastic deformation in the axial direction so that the surface and a surface continuous with the surface can be displaced relative to the shoe sole body.

  According to this configuration, the side portion of the rubber pin is bent by the load applied to the rubber pin during walking, and the rubber pin itself is immersed in the sole body. At this time, the rubber pin presses the ground not only by the elasticity of the rubber as a material but also by the restoring force of the bent side portion. This ensures that the rubber pin grips against rocks in the fishing ground. Moreover, since the rubber pin is immersed in the sole body, the entire sole surface is always in contact with the ground contact surface. Therefore, the angler can maintain a stable standing posture without losing balance.

  In addition, the shoe sole material is forcibly and periodically deformed due to the fisherman walking during actual use. Therefore, if the respective surfaces of the rubber pin cannot be displaced relative to the sole body, the deformation of the rubber pin is restricted when the sole material is deformed. It is impossible to obtain a sufficient grip force with respect to the above. However, in this structure, deformation of the rubber pin is sufficiently allowed, so that a high antiskid effect is exhibited.

It said side portions, from being formed in a bellows shape to allow axial elastic deformation, when a load is applied to the surface of the Gomupin, immersive of Gomupin to shoe sole body can be smoothly performed. Further, since the side portion is uniformly bent in the axial direction, the stress is not excessively increased locally. As a result, cracks on the side portions and rubber cuts are prevented.

  The rubber pin is preferably made of butyl rubber having a hardness of 20 to 40. Thus, since the rubber pin is made of butyl rubber having the above-mentioned hardness, the rubber pin is easily deformed and securely grips against rocks and the like of the fishing ground.

  It is preferable that the shoe sole body has a rubber pin housing chamber that opens to the lower surface of the shoe sole body, and the rubber pin is press-fitted into the rubber pin housing chamber. In this configuration, only the rubber pin is configured as a separate member and can be easily assembled to the sole body. As a result, the structure of the shoe sole material is simplified, and an increase in manufacturing cost is suppressed.

  The rubber pins are formed in a columnar shape having an outer diameter of 10 mm to 20 mm, and are preferably arranged in parallel at the heel portion of the sole body and the portion from the arch to the toe. In this configuration, since the structure of the rubber pin is very simple, the structure of the shoe sole is also simple. As a result, the manufacturing cost of the shoe sole material does not increase significantly. In addition, since the rubber pins are evenly arranged on the heel portion of the sole body and the portion from the arch to the toes, a higher antiskid effect is exhibited.

  It is preferable that an attachment member that covers an upper surface of the shoe sole body facing the outer bottom surface of the shoe body and that is detachably engaged with the outer bottom surface of the shoe body is further provided. In this case, since the shoe sole material can be attached to and detached from the shoe main body, there is an advantage that only the shoe sole material can be replaced if worn. Further, the rubber pin housing chamber may be configured from a through hole provided in the shoe sole body. And 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 is fixed to the mounting member with, for example, an adhesive. For this reason, there exists an advantage that the operation | work which assembles | attaches a rubber pin to a shoe sole main body becomes very easy. In particular, it is preferable that a flange is provided on the surface of the rubber pin facing the mounting member. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin is inserted into the through-hole, and the flange is brought into contact with the sole body, so that the rubber pin is held in a positioned state on the sole body. And the said attachment member is provided in the upper surface of the said shoe sole main body so that the said flange may be inserted | pinched in this state.

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

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

(3) Another fishing shoe that achieves the above object includes a shoe main body into which a fisherman's foot can be inserted, and a shoe sole material provided on the outer bottom surface of the shoe main body. The sole material includes a sole body made of felt attached to the outer bottom surface, and a rubber pin provided on the sole body so that the surface is exposed to the sole. This rubber pin is made of butyl rubber having a hardness of 20 to 40.

  According to this configuration, the angler inserts his / her foot into the shoe body and wears fishing shoes. When the angler wears fishing shoes and walks, the sole body presses against rocks and rocks at the fishing ground. At this time, since the surface of the rubber pin is exposed to the shoe sole, the surface of the shoe sole body made of felt and the rubber pin are pressed against stones or rocks. In addition, since the rubber pin is made of butyl rubber having the above hardness, the rubber pin is easily deformed and securely grips against a rock or the like in a fishing ground. In the present specification, the hardness of the rubber pin means durometer A-type hardness (JIS K 6263).

  Preferably, the shoe sole body has a rubber pin housing chamber that opens to the shoe sole, and the rubber pin is press-fitted into the rubber pin housing chamber. In this configuration, only the rubber pin is configured as a separate member and can be easily assembled to the sole body. As a result, the structure of the fishing shoe is simplified and a significant increase in manufacturing cost is avoided.

  The rubber pins are formed in a columnar shape having an outer diameter of 10 mm to 20 mm, and are preferably arranged in parallel at the heel portion of the shoe sole body and the portion from the arch to the toe. In this configuration, since the structure of the rubber pin is very simple, the structure of the fishing shoe is also simple. As a result, the manufacturing cost of fishing shoes does not increase significantly. In addition, since the rubber pins are evenly arranged on the heel portion of the sole body and the portion from the arch to the toes, a higher antiskid effect is exhibited.

  The surface of the rubber pin and the surface continuous with the surface are preferably displaceable relative to the shoe sole body. When the angler walks, the sole body deforms. Therefore, if each surface of the rubber pin cannot be displaced relative to the sole body, the deformation of the rubber pin is restricted when the angler walks, and as a result, sufficient for the rocks of the fishing ground. Grip power cannot be obtained. However, in this structure, since the deformation of the rubber pin is sufficiently allowed, even if the angler walks around the fishing ground, a high antiskid effect is exhibited.

  The shoe sole material further includes an attachment member that covers an upper surface of the shoe sole body facing the outer bottom surface of the shoe body, and the attachment member is detachably provided on the outer bottom surface of the shoe body. It is preferable. In this case, since the shoe sole material is detachable from the shoe main body, if the shoe sole material is worn, there is an advantage that only this can be replaced. Further, the rubber pin housing chamber may be configured from a through hole provided in the shoe sole body. And 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 is fixed to the mounting member with, for example, an adhesive. For this reason, there exists an advantage that the operation | work which assembles | attaches a rubber pin to a shoe sole main body becomes very easy. In particular, it is preferable that a flange is provided on the surface of the rubber pin facing the mounting member. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin is inserted into the through hole from the shoe main body side of the shoe sole body, and the flange is brought into contact with the shoe sole body, whereby the rubber pin is held in a positioned state by the shoe sole body. And the said attachment member is provided in the upper surface of the said shoe sole main body so that the said flange may be inserted | pinched in this state.

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

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

(4) Furthermore, another shoe sole material that achieves the above object is a shoe sole material provided on the outer bottom surface of the shoe body, and the shoe sole body made of felt and the surface exposed on the lower surface of the shoe sole body. And a rubber pin provided on the shoe sole body. This rubber pin is made of butyl rubber having a hardness of 20 to 40.

  According to this configuration, when the shoe sole body comes into contact with stones or rocks at the fishing ground, the rubber pins are exposed on the shoe soles, so that the surfaces of the shoe sole body made of felt and the rubber pins come into contact with the stones and rocks. In addition, since the rubber pin is made of butyl rubber having the above hardness, the rubber pin is easily deformed and securely grips against a rock or the like in a fishing ground.

  It is preferable that the shoe sole body has a rubber pin housing chamber that opens to the lower surface of the shoe sole body, and the rubber pin is press-fitted into the rubber pin housing chamber. In this configuration, only the rubber pin is configured as a separate member and can be easily assembled to the sole body. As a result, the structure of the shoe sole material is simplified, and an increase in manufacturing cost is suppressed.

  The rubber pins are formed in a columnar shape having an outer diameter of 10 mm to 20 mm, and are preferably arranged in parallel at the heel portion of the sole body and the portion from the arch to the toe. In this configuration, since the structure of the rubber pin is very simple, the structure of the shoe sole is also simple. As a result, the manufacturing cost of the shoe sole material does not increase significantly. In addition, since the rubber pins are evenly arranged on the heel portion of the sole body and the portion from the arch to the toes, a higher antiskid effect is exhibited.

  The surface of the rubber pin and the surface continuous with the surface are preferably displaceable relative to the shoe sole body. The shoe sole material is deformed forcibly and periodically due to the fisherman walking during actual use. Therefore, if the respective surfaces of the rubber pin cannot be displaced relative to the sole body, the deformation of the rubber pin is restricted when the sole material is deformed. It is impossible to obtain a sufficient grip force with respect to the above. However, in this structure, deformation of the rubber pin is sufficiently allowed, so that a high antiskid effect is exhibited.

  It is preferable that an attachment member that covers an upper surface of the shoe sole body facing the outer bottom surface of the shoe body and that is detachably engaged with the outer bottom surface of the shoe body is further provided. In this case, since the shoe sole material can be attached to and detached from the shoe main body, there is an advantage that only the shoe sole material can be replaced if worn. Further, the rubber pin housing chamber may be configured from a through hole provided in the shoe sole body. And 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 is fixed to the mounting member with, for example, an adhesive. For this reason, there exists an advantage that the operation | work which assembles | attaches a rubber pin to a shoe sole main body becomes very easy. In particular, it is preferable that a flange is provided on the surface of the rubber pin facing the mounting member. By providing this flange, the work of assembling the rubber pin to the shoe sole body is further simplified. Specifically, the rubber pin is inserted into the through-hole, and the flange is brought into contact with the sole body, so that the rubber pin is held in a positioned state on the sole body. And the said attachment member is provided in the upper surface of the said shoe sole main body so that the said flange may be inserted | pinched in this state.

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

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

  According to the present invention, since the sole body made of felt and the rubber pin securely grip the rocks of the fishing ground, and the cooperation of these, a high anti-skid effect is exhibited regardless of the situation of the fishing ground. .

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

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

  The fishing shoe 10 is worn by a fisherman for walking safely at a fishing spot, for example, in carp fishing. A feature of the fishing shoe 10 according to the present embodiment is a structure of a sole portion of the fishing shoe 10. That is, the fishing shoes 10 are provided with a shoe sole material 13 to be described later, so that a high anti-skid effect in walking at a fishing spot is exhibited. In addition, although a fisherman wears a pair of fishing shoes 10 formed symmetrically, in order to simplify the description, the structure of the fishing shoes 10 for the right leg will be described below.

  The fishing shoe 10 includes a shoe main body 11 and a shoe sole material 13 provided on the outer bottom surface 31 of the shoe main body 11. The shoe main body 11 includes a midsole portion 12 at a lower portion, and a shoe sole material 13 is attached to the midsole portion 12.

  The shoe body 11 includes an inner cloth 14, a body rubber 15, reinforcing rubbers 16 to 20, and an insole 21.

  The inner cloth 14 is made of nylon or other polyester, for example, and constitutes the inner wall surface of the shoe body 11. When the inner cloth 14 is made of nylon or other polyester, the angler can comfortably wear the fishing shoes 10. The insole 21 is disposed on the inner bottom portion of the inner cloth 14. The inner bottom portion of the inner cloth 14 constitutes a placement portion 23 on which the sole portion of the foot is placed when the angler wears the fishing shoes 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 fishing shoe 10 fits the foot, and the angler becomes more comfortable to wear. However, the insole 21 may be omitted.

  The main rubber 15 is disposed so as to surround the outer peripheral surface excluding the bottom of the inner cloth 14. The main rubber 15 forms the skeleton of the shoe main body 11. As the main rubber 15, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is employed. The reinforcing rubber 16 is disposed so as to cover the tip portion (toe side) of the shoe main body 11, and reinforces the portion. As the reinforcing rubber 16, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is used. The reinforcing rubber 17 is disposed so as to cover the rear end (heel side) of the shoe main body 11 and reinforces the portion. The reinforcing rubber 17 has a thick portion 22 in particular. The thick portion 22 is provided in a portion corresponding to the rear side of the angler's heel when the angler wears the fishing shoes 10, and the safety of the angler's heel portion is ensured. As the reinforcing rubber 17, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is used.

  The reinforcing rubber 18 is disposed in the vicinity of the bottom portion of the shoe main body 11 and is disposed along the circumferential direction of the shoe main body 11. That is, the reinforcing rubber 18 is disposed so as to surround the lower edge portion of the shoe main body 11 and further reinforces the front end portion and the rear end portion of the shoe main body 11. As the reinforcing rubber 18, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is employed. The reinforcing rubber 19 is disposed outside the reinforcing rubber 18. The reinforcing 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. Thereby, the reinforcement rubber 19 has further reinforced the front-end | tip part and lower end part of the shoe main body 11, and the durability and safety | security of the fishing shoe 10 are improved. As the reinforcing rubber 19, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is used. The reinforcing rubber 20 is disposed at the peripheral edge of the upper opening 36 (the portion into which the fisherman's leg is inserted) of the shoe body 11. The reinforcing rubber 20 reinforces the peripheral edge. As the reinforcing rubber 20, for example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber is employed.

  The midsole portion 12 is disposed on the bottom surface 24 outside the inner cloth 14. However, a reinforcing sheet 25 is disposed on the bottom peripheral edge of the shoe body 11. Therefore, the midsole portion 12 is fixed to the bottom surface 24 with the reinforcing sheet 25 interposed therebetween. The midsole portion 12 includes a base portion 26, a seat member 27, and a cushion member 28. The base portion 26 is made of, for example, synthetic rubber, and the outer shape thereof corresponds to the shape of the bottom surface 24. The seat member 27 is disposed on the upper surface of the base portion 26, and a cushion member 28 is disposed on the upper surface of the seat member 27. In other words, the base portion 26, the seat member 27, and the cushion member 28 are laminated in order, and these are integrally attached to the bottom surface 24 outside the inner cloth 14. The bottom surface of the base portion 26 constitutes the outer bottom surface 31 of the shoe body 11. The outer bottom surface 31 includes a recess 32 for mounting a shoe sole material 13 to be described in detail later.

  The sheet member 27 is made of a plate material. As the material constituting the sheet member 27, for example, rubber, felt, plastic, metal, or the like can be adopted in addition to a paper material impregnated with resin. The cushion member 28 is made of a foam molded member such as a foamed ethylene vinyl acetate copolymer, a foamed synthetic rubber, a foamed natural rubber, a foamed urethane, or a felt material. In the present embodiment, the cushion member 28 is laminated on the upper surface of the seat member 27, but the cushion member 28 may be disposed on the upper surface of the base portion 26, and the seat member 27 may be disposed on the upper surface thereof. However, the seat member 27 and the cushion member 28 may be omitted.

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

  As shown in FIGS. 2 and 3, the shoe sole material 13 is detachably attached to the outer bottom surface 31 of the shoe main body 11. The shoe sole material 13 includes an attachment plate portion 33 (attachment member), a felt member 34 (sole body) provided on the attachment plate portion 33, and a rubber pin 35 erected on the attachment plate portion 33.

  The felt member 34 is formed in a shape corresponding to the outer bottom surface 31 of the shoe body 11. Specifically, the outer shape of the felt member 34 is formed so that it fits snugly into the recess 32 provided in the outer bottom surface 31. The thickness of the felt member 34 is set to 10.0 mm to 20.0 mm. The felt member 34 is configured by gathering fibers three-dimensionally and without regularity of direction. As the fiber type, for example, natural fibers such as coconut fiber and hemp can be adopted in addition to synthetic fibers such as nylon and polyester. Further, the mounting plate portion 33 is a thin flat plate-like member and covers the upper surface 39 of the felt member 34 (the lower surface of the felt member 34 in FIG. 3). The mounting plate portion 33 is made of a nonwoven fabric containing synthetic fibers such as nylon and other polyesters.

  In the present embodiment, a hook-and-loop fastener mechanism is configured 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 of the mounting plate portion 33 (the lower surface in FIG. 3), and the fiber is formed in a hook shape on the inner surface of the recess 32. Therefore, when the shoe sole material 13 is fitted into the recess 32, the mounting plate 33 is detachably engaged with the wall surface of the recess 32 with a certain holding force. As a result, the shoe sole material 13 is detachably held on the midsole portion 12 with a constant holding force. However, the mounting plate portion 33 may be formed of a loop tape, and the recess 32 may be provided with a hook tape that engages with the loop tape.

  The rubber pin 35 is formed in a cylindrical shape whose outer diameter is set to 10.0 mm to 20.0 mm, and is embedded in the felt member 34. In the present embodiment, 17 rubber pins 35 are provided on the felt member 34. However, the number of the rubber pins 35 is not limited to 17, and can be appropriately set in the range of 5 to 30. Further, the rubber pin 35 is disposed in a region other than the region W corresponding to a so-called arch. Specifically, five rubber pins are arranged in parallel in the region corresponding to the heel portion, and twelve rubber pins are arranged in parallel in the region corresponding to the portion from the arch to the toe. The hardness of the rubber pin 35 can be set in the range of 10-60. The hardness in this case is durometer A type hardness in accordance with JIS K 6263. However, the hardness of the rubber pin is preferably set to 15 to 45, and more preferably 20 to 40. The rubber constituting the rubber pin 35 is a synthetic rubber (so-called butyl rubber) obtained by copolymerizing a predetermined amount of isoprene with isobutylene. In this embodiment, the rubber pin 35 is comprised from the compounding rubber | gum which makes the main component of a polymer butyl.

  The felt member 34 includes 17 rubber pin accommodation chambers 37. The rubber pin housing chamber 37 is composed of a recess having an opening on the lower surface 40 (shoe sole) of the felt member 34. The number of rubber pin accommodation chambers 37 corresponds to the number of rubber pins 35. The rubber pin housing chamber 37 corresponds to the outer shape of the rubber pin 35, and in this embodiment, the inner wall surface shape of the rubber pin housing chamber 37 is formed in a cylindrical 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-fitted into the rubber pin accommodation chamber 37. In a state where each rubber pin 35 is fitted in the rubber pin housing chamber 37, the surface 38 (surface exposed to the shoe sole) of each rubber pin 35 is exposed on the lower surface 40 of the felt member 34, and smoothly and continuously with the lower surface 40. Yes.

  In the present embodiment, each rubber pin 35 is fixed to the mounting plate portion 33 only at the upper surface 41 (the surface facing the mounting member). That is, the rubber pin housing chamber 37 is configured as a through-hole penetrating the felt member 34 in the thickness direction, and each rubber pin 35 is fitted in the rubber pin housing chamber 37, but the surface 38 (shoes) of the rubber pin 35 The surface exposed to the bottom) and the peripheral surface 42 (the surface adjacent to the surface exposed to the shoe sole) are not fixed to the felt member 34. Thereby, the surface 38 and the peripheral surface 42 of each rubber pin 35 can be displaced relative to the felt member 34.

  This fishing shoe 10 is generally manufactured as follows. A foot shape is used for manufacturing the fishing shoes 10. First, the inner cloth 14 is put on the foot mold. The main body rubber 15 is covered so as to cover the inner cloth 14. Next, the cushion member 28 and the sheet member 27 are affixed to the bottom part of the inner fabric 14, and the said reinforcement sheet 25 and each reinforcement rubber 16-20 are affixed in order. And the base 26 of the midsole part 12 is affixed so that the bottom part of the shoe main body 11 may be covered. The main body rubber 15, the reinforcing rubbers 16, and the like and the base 26 are fixed by a known adhesive, vulcanization treatment, or the like. The insole 21 is inserted from the upper opening 36 of the shoe main body 11 and is disposed on the inner bottom portion of the shoe main body 11. The shoe sole material 13 is assembled in advance as a separate part. The shoe sole material 13 is fixed to the midsole portion 12 via the hook-and-loop fastener mechanism only by being fitted into the recess 32 of the midsole portion 12. In the present embodiment, the shoe sole material 13 is detachably attached to the shoe main body 11, but the shoe sole material 13 may be fixed to the shoe main body 11.

  When the angler walks while wearing the fishing shoes 10 according to the present embodiment, the weight of the angler acts on the shoe sole material 13, and the felt member 34 is pressed against the rocks and rocks of the fishing ground. At this time, since the surface 38 of the rubber pin 35 is exposed to the shoe sole, the surfaces of the felt member 34 and the rubber pin 35 are pressed against stones or rocks. In addition, since the rubber pin 35 is made of butyl rubber having the above hardness, the rubber pin 35 is easily deformed and securely grips against rocks and the like in the fishing ground. That is, since the felt member 34 and the rubber pin 35 cooperate to exhibit an anti-slipping effect, the fishing shoe 10 exhibits a high anti-slipping effect regardless of the conditions of the fishing ground.

  In particular, in this embodiment, the shoe sole material 13 includes the mounting plate portion 33, and the mounting member 33 is detachably provided on the outer bottom surface 31 of the shoe main body 11. Thereby, since the shoe sole material 13 becomes detachable with respect to the shoe main body 11, when the shoe sole material 13 is worn, there is an advantage that only this can be replaced with a new one.

  Further, since the shoe sole material 13 is configured by pressing the rubber pin 35 into the rubber pin housing chamber 37 of the felt member 34, the rubber pin 35 can be easily configured as a separate member by configuring only the rubber pin 35 as a separate member. 34 is assembled. As a result, the structure of the fishing shoe 10 is simplified, and a significant increase in manufacturing cost is avoided. Moreover, since the rubber pin 35 is formed in a cylindrical shape as described above, the structure of the rubber pin 35 is very simple, and the structure of the fishing shoe 10 is also simpler. In addition, since the rubber pins 35 are evenly arranged in the region corresponding to the heel portion of the felt member 34 and the region corresponding to the portion extending from the arch to the toe, there is an advantage that a higher antiskid effect is exhibited.

  Particularly in the present embodiment, the surface 38 and the peripheral surface 42 of the rubber pin 35 can be displaced relative to the felt member 34. By the way, when the angler wears the fishing shoes 10 and walks the fishing ground, the felt member 34 is deformed. Therefore, if the surface 38 and the peripheral surface 42 of the rubber pin 35 cannot be displaced relative to the felt member 34, the deformation of the rubber pin 35 is restricted when the fisherman walks. It will not be possible to obtain a sufficient grip on the rocks. However, in this fishing shoe 10, since the deformation of the rubber pin 35 is sufficiently allowed, even if the angler walks around the fishing ground, a high anti-skid effect is exhibited. Moreover, the structure allowing the deformation of the rubber pin 35 is specifically realized by fitting the rubber pin 35 into the rubber pin housing chamber 37 and fixing only the upper surface 41 of the rubber pin 35 to the mounting plate portion 33. There is an advantage that the work of assembling the rubber pin 35 to the felt member 34 is very simple.

<Second Embodiment>
Next, a second embodiment of the present invention will be described. FIG. 4 is a perspective view of a rubber pin 50 according to the second embodiment of the present invention, and FIG. 5 is a cross-sectional view showing a mounting procedure of the rubber pin 50.

  The fishing shoe according to the second embodiment is different from the fishing shoe 10 according to the above-described embodiment in that the rubber pin 50 includes a cylindrical portion 51 and a flange 52, as shown in FIG. As shown in FIG. 5, the rubber pin 50 is attached so that the flange 52 is sandwiched between the attachment plate portion 33 and the felt member 34, as shown in FIG. 5. Is a point. Other configurations are the same as those of the fishing shoe 10.

  The rubber pin 50 is formed of the same material as that of the rubber pin 35. The cylindrical portion 51 of the rubber pin 50 has the same shape as the rubber pin 35. A flange 52 is integrally formed on the upper surface of the cylindrical portion 51. The narrow groove 53 and the narrow groove 54 are provided on the surface 38 of the cylindrical portion 51 and are orthogonal to each other. In other words, a cross-shaped fine groove is formed on the surface 38 of the cylindrical portion 51. In the present embodiment, the two narrow grooves 53 and 54 are provided and are orthogonal to each other. However, the number of the narrow grooves and the crossing angle are not particularly limited, and in short, the surface of the cylindrical portion 51. It is only necessary that a narrow groove is formed in 38. The width d of the narrow grooves 53 and 54 can be set to about 0.2 mm to 2.0 mm. The narrow grooves 53 and 54 extend in the axial direction of the cylindrical portion 51 by a dimension c. The dimension c is a depth dimension of the narrow grooves 53 and 54 and can be set to about 5 mm to 15 mm.

  The rubber pin 50 is fitted in the rubber pin housing chamber 37 of the felt member 34 as shown in FIG. Specifically, the column portion 51 is fitted from the upper surface 39 side (the shoe body 11 side) of the felt member 34. Since the cylindrical portion 51 is provided with the flange 52, when the cylindrical portion 51 is inserted into the rubber pin housing chamber 37, the flange 52 comes into contact with the upper surface 39 of the felt member 34. In this state, the mounting plate portion 33 is attached and 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 attachment plate portion 33, and the rubber pin 50 is securely fixed to the felt member 34. Here, the length dimension of the cylindrical portion 51 is set to be longer than the thickness dimension of the felt member 34. Therefore, in a state where the rubber pin 50 is attached to the felt member 34, the tip end portion of the cylindrical portion 51 protrudes from the lower surface 40 of the felt member 34. This protrusion dimension a is set to 1.0 mm to 3.0 mm.

  In the present embodiment, since the rubber pin 50 includes the flange 52, the rubber pin 50 is securely fixed to the felt member 34 as described above, and the work of assembling the rubber pin 50 to the felt member 34 is further simplified. There is an advantage.

  Further, when the felt member 34 having the surface 38 of the rubber pin 50 projecting from the lower surface 40 of the felt member 34 is pressed against rocks or rocks in a fishing ground, the rubber pin 50 is deformed to grip the stones or the like. Engage securely. Therefore, a higher antiskid 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 sustained.

  In addition, since the narrow 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 is surrounded by the rubber pin 50. Is discharged. Thereby, an even higher antiskid effect is exhibited. In the present embodiment, since the narrow grooves 53 and 54 are formed in a cross shape on the surface 38 of the rubber pin 50, there is an advantage that a higher drainage effect is exhibited.

<Third Embodiment>
Next, a third embodiment of the present invention will be described. FIG. 6 is an enlarged cross-sectional view of a main part of a fishing shoe according to the third embodiment of the present invention.

  In each of the above-described embodiments, the shoe sole material 13 is configured by the felt member 34 and the mounting plate portion 33 covered with the upper surface 39 of the felt member 34. For example, as shown in FIG. The bottom member 13 may be formed in a laminated structure in which the bottom plate member 45 is disposed on the upper surface of the felt member 34 and the mounting plate portion 33 is disposed on the upper surface of the bottom plate member 45. In this case, only the upper surface 41 of each rubber pin 35 is fixed to the bottom plate member 45, so that each rubber pin 35 is attached to the felt member 34.

  Here, the bottom plate member 45 is made of a plate material. Examples of the material constituting the bottom plate member 45 include natural rubber (NR), polyvinyl chloride (PVC) and other synthetic rubbers, paper materials impregnated with fat, foamed ethylene vinyl acetate copolymer, foamed material, and the like. Various materials such as foamed molded members such as synthetic rubber, foamed natural rubber, and foamed urethane can be used. However, it is preferably at least rigid and thinner than the felt member 34. 6, even when a highly flexible material is used for the felt member 34, the rigidity of the entire shoe sole material 13 can be ensured. Even when the fishing shoe 10 is used and the felt member 34 is worn and thinned, the rigidity required for the sole material 13 can be secured by the bottom plate member 45.

<Fourth Embodiment>
Subsequently, a fourth embodiment of the present invention will be described below. FIG. 7 is a perspective view of a rubber pin 60 according to the fourth embodiment of the present invention. FIG. 8 is a vertical cross-sectional view of the rubber pin 60, and shows a cross section taken along line VIII-VIII in FIG. FIG. 9 is an enlarged cross-sectional view of the main part of the shoe sole material 13 provided with the rubber pin 60, and FIG. It is.

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

  As described above, it is expected that the wear rate of the felt member 34 and the wear rate of the rubber pin can be substantially matched by adopting the configuration in which the tip end portion of the cylindrical portion 51 of the rubber pin is projected from the lower surface 40 of the felt member 34. Is done. However, the wear on the bottom surface of the fishing shoe 10 may be significantly different depending on how the fishing shoe 10 is used and the state of the fishing ground used.

  For example, when the fishing shoe 10 is used at a wharf with a flat surface such as a concrete surface, since the entire area of the sole is grounded during walking, the wear rate of the rubber pin protruding from the bottom surface is felt. 34 may be faster than the wear rate. On the other hand, when the fishing shoe 10 is used on a rough rock surface such as a kite or the like, the rubber pin 50 securely grips stones or rocks, so that the fisherman can easily move on the rock, but the felt member. 34 is sharply cut by the rough surface of the rock. Accordingly, in a rough rocky place, the wear rate of the felt member 34 may be faster than the wear rate of the rubber pin. When the fishing shoe 10 is used with a bias on a rough rock surface, the felt member 34 is lost due to wear, and the protruding amount of the rubber pin protruding from the bottom surface of the fishing shoe 10 becomes remarkably large. Thus, if the said fishing shoes 10 are worn in the state which the protrusion amount of the rubber pin changed greatly, there exists a possibility of preventing a fisherman's stable standing posture and walking. In addition, it is not preferable because it feels uncomfortable during actual fishing and makes it impossible to fish comfortably. Furthermore, when the protruding amount of the rubber pin is increased, the amount of deformation of the rubber pin itself is increased, which may cause a problem that the rubber pin 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 of the above-described embodiments is employed. Specifically, the rubber pin 35 and the rubber pin 50 are formed of a rubber lump, whereas the rubber pin 60 is formed such that the inside of the cylindrical portion 51 is formed hollow as shown in FIGS. 7 and 8. Thus, the rubber pins 35 and the rubber pins 50 are greatly different. The other configuration of the rubber pin 70 and the other configuration of the fishing shoe are the same as those of the fishing shoe 10 described 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 made of the same material as that of the rubber pin 35 and the rubber pin 50, that is, butyl rubber having a hardness of 15 to 45, more preferably a hardness of 20 to 40. Since the rubber pin 60 is made of butyl rubber having the above-mentioned hardness, the rubber pin 60 is easily deformed and securely grips against rocks or the like in a fishing spot. Thereby, the fishing shoe 10 exhibits a high antiskid effect regardless of the situation of the fishing ground. The butyl rubber is merely an example of a material constituting the rubber pin 60. For example, natural rubber (NR), polyvinyl chloride (PVC), or other synthetic rubber can be used as the material of the rubber pin 60.

  As shown in FIGS. 7 and 8, the cylindrical portion 51 of the rubber pin 60 includes a bottom plate portion 63 and side portions 62 formed integrally with the bottom plate portion 63. The bottom plate portion 63 has a surface 38 exposed to the shoe sole. Similar to the rubber pin 50, two narrow grooves 53 and 54 that are orthogonal to each other are formed in the bottom plate portion 63.

  The bottom plate portion 63 is configured as a rubber lump having a certain thickness because the surface 38 may be pressed against stones or rocks and gradually worn during walking. The thickness of the bottom plate portion 63 is an element that can be set as appropriate depending on the material of the rubber pin 60 and the purpose of use of the fishing shoe 10, but is generally set in a range of 5 mm to 10 mm. As described above, since the outer dimensions of the cylindrical portion 51 of the rubber pin 60 are 10.0 mm to 20.0 mm, the bottom plate portion 63 has a columnar shape with a low height.

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

A flange 52 is integrally formed on the upper surface of the side portion 62, that is, on the upper surface of the cylindrical portion 51 of the rubber pin 60. The flange 52 has an annular shape in plan view, and extends from the outer periphery of the upper surface of the cylindrical portion 51 outward in a bowl shape. The upper surface of the cylindrical part 51 is not closed, and therefore the inner hole 61 of the side part 62 formed in a cylindrical shape is opened. In the present embodiment, the rubber pin 60 having the flange 52 is described, but the flange 52 may be omitted.

  When the fishing shoe 10 according to the present embodiment is used in a rough rocky place such as a kite or the like, the weight of the fisherman acts on the shoe sole material 13, and the felt member 34 is pressed against the rocks and rocks of the fishing ground. The At this time, the felt member 34 and the rubber pin 60 cooperate to exhibit a high antiskid effect. On the other hand, the felt member 34 is gradually scraped off with rocks and rocks at the fishing ground. For example, as a result of the fishing shoe 10 being used a plurality of times, as shown in FIG. 9, the felt member 34 is scraped off and reduced, and a predetermined protrusion dimension a (1.0 mm to 3.0 mm) of the rubber pin 60 is set. ) May be expanded to dimension e (> a). As shown in the figure, since the surface 38 of the rubber pin 60 is exposed to the shoe sole, the weight of the angler acts and a load is applied to the rubber pin 60 from the direction of arrow P in the figure. At this time, as shown in FIG. 10, the side portion 62 of the rubber pin 60 is bent inward by the applied load.

  As a result of the side portion 62 being bent inward, the rubber pin 60 is immersed in the felt member 34. At this time, in addition to the original elastic force of rubber, the rubber pin 60 generates a biasing force in a direction to push back the load from the direction of the arrow P in an attempt to restore the deflection of the side portion 62. Therefore, the rubber pin securely grips the rocky area such as the reed. Moreover, since the rubber pin 60 is immersed in the felt member 34, the entire shoe sole is always in contact with the ground contact surface. Therefore, the angler can maintain a stable walking and standing posture without losing balance.

  The side portion 62 may be of any shape as long as it is formed in a substantially cylindrical shape. For example, instead of the rubber pin 60, as shown in FIG. 11, it is also possible to employ a rubber pin 70 in which the side portion 62 is formed in a bellows shape that allows elastic deformation in the axial direction (vertical direction in FIG. 11). It is. FIG. 11 is a longitudinal sectional view of the rubber pin 70, and FIG. 12 is an enlarged cross-sectional view of a main part of the shoe sole material 13 including the rubber pin 70. FIG. 13 is an enlarged cross-sectional view of a main part of the shoe sole material 13 when a load is applied to the surface 38 of the rubber pin 70.

  In a fishing shoe in which such a rubber pin 70 is provided on the shoe sole material 13, when a load is applied to the surface 38 of the rubber pin 70, the rubber pin 70 protrudes from the sole (see FIG. 12). As shown in FIG. 13, the operation until the rubber pin 70 is immersed in the felt member 34 is performed easily and smoothly. Further, the urging force in the direction of pushing back the load from the arrow P direction is increased by the bellows shape of the side portion 62, and the rubber pin 70 grips the rocks such as the ridge more reliably. Furthermore, since the side part 62 is formed in a bellows shape, the side part 62 bends uniformly in the axial direction of the rubber pin 70, that is, the direction perpendicular to the shoe sole, so that the stress does not become excessive locally. As a result, cracking of the side portion 62 and rubber breakage are prevented.

  The present invention can be applied to fishing shoes used in sharks and river fields.

FIG. 1 is a perspective view of a fishing shoe according to the first embodiment of the present invention. FIG. 2 is an enlarged cross-sectional view of a main part of the fishing shoe according to the first embodiment of the present invention. FIG. 3 is a partially exploded perspective view of the sole material of the fishing shoe according to the first embodiment of the present invention. FIG. 4 is a perspective view of a rubber pin according to the second embodiment of the present invention. FIG. 5 is a cross-sectional view showing a rubber pin mounting procedure according to the second embodiment of the present invention. FIG. 6 is an enlarged cross-sectional view of a main part of a fishing shoe according to the third embodiment of the present invention. FIG. 7 is a perspective view of a rubber pin 60 according to the fourth embodiment of the present invention. FIG. 8 is a vertical cross-sectional view of a rubber pin 60 according to a fourth embodiment of the present invention, and shows a cross section taken along line VIII-VIII in FIG. FIG. 9 is an enlarged cross-sectional view of a main part of the shoe sole material 13 including the rubber pin 60 according to the fourth embodiment of the present invention. FIG. 10 is an enlarged cross-sectional view of the main part of the shoe sole material 13 when a load is applied to the surface 38 of the rubber pin 60 according to the fourth embodiment of the present invention. FIG. 11 is a longitudinal sectional view of a rubber pin 70 that is a modification of the rubber pin 60. FIG. 12 is an enlarged cross-sectional view of a main part of the shoe sole material 13 including a rubber pin 70 which is a modified example of the rubber pin 60. FIG. 13 is an enlarged cross-sectional view of a main part of the shoe sole material 13 when a load is applied to the surface 38 of the rubber pin 70 which is a modified example of the rubber pin 60.

DESCRIPTION OF SYMBOLS 10 ... Fishing shoes 11 ... Shoe main body 12 ... Mid sole part 13 ... Shoe sole material 31 ... Outer bottom face of shoe main body 32 ... Recess 33 ... Mounting plate part 34. ..Felt member 35 ... Rubber pin 37 ... Rubber pin housing chamber 38 ... Rubber pin surface 39 ... Felt upper surface 40 ... Felt lower surface 41 ... Rubber pin upper surface 42 ... Rubber pin Peripheral surface 50 ... Rubber pin 51 ... Cylindrical part 52 ... Flange 53 ... Narrow groove 54 ... Narrow groove 60 ... Rubber pin 61 ... Inner hole 62 ... Side 63 ...・ Bottom plate part 70 ... Rubber pin

Claims (20)

A shoe body into which the angler's feet can be inserted; and
A shoe sole material provided on the outer bottom surface of the shoe body,
The sole material is
A shoe sole body made of felt attached to the outer bottom surface;
A rubber pin provided on the sole body,
The rubber pin has a bottom plate portion whose surface is exposed to the shoe sole, and a substantially cylindrical side portion erected on the outer peripheral edge portion of the bottom plate portion,
Said side portions, shoe fishing continuous surface on the front surface and the surface of the Gomupin is that is formed in a bellows that allows elastic deformation in the axial direction so as to be displaced relative to the sole body. The fishing shoe according to claim 1 , wherein the rubber pin is made of butyl rubber having a hardness of 20 to 40. The shoe sole body has a rubber pin housing chamber that opens to the shoe sole,
The fishing shoe according to claim 1 or 2 , wherein the rubber pin is press-fitted into the rubber pin housing chamber. The Gomupin has an outer diameter is formed in a cylindrical shape with a diameter of 10 mm to 20 mm, any one of claims 1, which is uniformly arranged in the portion leading to the toe heel and arch of the sole body 3 of Fishing shoes described in 1. The shoe sole material further includes an attachment member that covers the upper surface of the shoe sole body facing the outer bottom surface of the shoe body,
The fishing shoe according to any one of claims 1 to 4 , wherein the attachment member is detachably provided on an outer bottom surface of the shoe body. The rubber pin housing chamber is composed of a through hole provided in the shoe sole body,
The fishing shoe according to claim 5 , wherein only a surface of the rubber pin facing the mounting member is fixed to the mounting member. The fishing shoe according to claim 6 , wherein a flange is provided on a surface of the rubber pin facing the mounting member. The fishing shoe according to any one of claims 1 to 7 , wherein a surface of the rubber pin protrudes from the shoe sole in a range of 1 mm to 3 mm. The fishing shoe according to any one of claims 1 to 8 , wherein a narrow groove having a predetermined depth is provided on a surface of the rubber pin. The fishing shoe according to claim 9 , wherein the narrow groove is formed in a cross shape on the surface of the rubber pin. A shoe sole material provided on the outer bottom surface of the shoe body,
A sole body made of felt,
A rubber pin provided on the sole body,
The rubber pin has a bottom plate portion whose surface is exposed on the lower surface of the sole body, and a substantially cylindrical side portion erected on the outer peripheral edge of the bottom plate portion,
Said sides, sole material surface that is continuous with the surface and the surface of the Gomupin is that is formed in a bellows that allows elastic deformation in the axial direction so as to be displaced relative to the sole body. The shoe sole material according to claim 11 , wherein the rubber pin is made of butyl rubber having a hardness of 20 to 40. The shoe sole body has a rubber pin housing chamber that opens on the lower surface of the shoe sole body,
The shoe sole material according to claim 11 or 12 , wherein the rubber pin is press-fitted into the rubber pin housing chamber. The Gomupin has an outer diameter is formed in a cylindrical shape with a diameter of 10 mm to 20 mm, one of claims 11 to portion leading to toe heel and arch of the sole body are evenly arranged 13 Shoe sole material according to crab. According to any of claims 11 to mounting member to releasably engage the outer bottom surface of and above the shoe body covering the upper surface of the sole body which faces the outer bottom surface of the shoe body is further provided 14 Shoe sole material. The rubber pin housing chamber is composed of a through hole provided in the shoe sole body,
The sole material according to claim 15 , wherein only a surface of the rubber pin facing the mounting member is fixed to the mounting member. The sole material according to claim 16 , wherein a flange is provided on a surface of the rubber pin facing the mounting member. The shoe sole material according to any one of claims 11 to 17 , wherein a surface of the rubber pin protrudes from a lower surface of the shoe sole body in a range of 1 mm to 3 mm. The shoe sole material according to any one of claims 11 to 18 , wherein a narrow groove having a predetermined depth is provided on a surface of the rubber pin. The shoe sole material according to claim 19 , wherein the narrow groove is formed in a cross shape on the surface of the rubber pin.

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