JP2005034608A - Fastener of shoestring - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a fastener of a shoestring for surely fastening the shoestring, and easily loosening its fastening by simple operation. <P>SOLUTION: Inserting holes 23 for respectively inserting two residual parts 15 of the shoestring 14, are formed by at least two in a pressure receiving body 21. Inserting holes 25, 214 and 218 capable of simultaneously inserting the residual parts of the shoestring inserted into the two inserting holes of the pressure receiving body, are formed by at least one in fastening bodies 22, 213 and 217. A blade and a shoehorn 12 are pressed down by the pressure receiving body by positioning the pressure receiving body at the root of the residual parts of the shoestring, and the fastening bodies are positioned just near the pressure receiving body. The fastening bodies are positioned by pressing the residual parts of the shoestring to the inserting holes of the fastening bodies. The movement of the pressure receiving body is checked by these fastening bodies, and the residual parts of the shoestring are fastened. <P>COPYRIGHT: (C)2005,JPO&NCIPI

Description

  The present invention relates to a shoelace fastener, and more particularly to a shoelace that can securely tighten a shoelace by a simple operation and can loosen the shoelace by a simple operation.

  When walking with shoes on, fit your foot heel to the heel of the shoe and hold the back of the foot firmly with the shoe's lip to create a gap between the toe of the foot and the toe of the shoe. It is known that if you keep it, you will not get tired even if you wear shoes for a long time.

  From the viewpoints described above, lace-up type shoes are shoes that do not get tired easily. However, when a lifting force is applied from the instep of the foot during walking, the knots on the laces may loosen and unravel. It was.

  Therefore, the remaining part of the shoelace that has passed through the eyelet hole is inserted into the two holes of the cap, and then inserted into one hole of the plug. After tightening the shoehorn with the shoelace, until the position where the shoelace is held down By moving the cap, pushing the plug into the cap, and sandwiching the shoelace between the cap and the plug, the movement of the cap in the direction in which the shoelace tightens is prevented, thereby tightening the shoelace. A tightening tool has been proposed in which the plug is removed from the cap when loosening (see Patent Document 1).

In addition, the two remaining portions of the shoelace passed through the eyelet hole are passed through the case from the through holes on both sides of the rectangular case, and further, the three through holes on both sides of the Y-shape of the pusher are passed from the outside to the inside The shoelaces are pulled out from the case through the inside and pulled out from the case, and the shoelaces are pressed against the inner surface of the case by the elasticity of the Y-shaped sides of the pushers to tighten the shoelaces. On the other hand, when the shoelaces are loosened, the pushers are pushed in. Fasteners that can move the case in a direction that loosens the shoelaces by shrinking the Y-shaped side portions inward and forming a gap between the shoelaces and the inner surface of the case Has also been proposed (see Patent Document 2).
JP-A-55-38101 Japanese Utility Model Publication No. 62-157404

  However, in the former tightening tool, it is necessary to insert and remove the plug from the cap every time tightening is performed, and in the latter tightening tool, after the pusher is pushed in, the case is moved along the shoelace. It is necessary to move them, and the operation is complicated.

  In view of such problems, an object of the present invention is to provide a shoelace tightening tool that can securely tighten a shoelace by a simple operation and can loosen the tightening by a simple operation.

  The shoelace tightener according to the present invention is a shoelace tightening the remaining portion of the shoelace inserted into the eyelet holes of the left and right wings of a shoelace-type shoe, wherein a plurality of insertion holes are formed. The two remaining portions of the shoelace are inserted one by one into two insertion holes, and a pressure receiving body that receives a lifting force from the shoehorn at the time of tightening, and at least one insertion hole are formed. A stopper that has a size through which the two remaining portions of the shoelace inserted through the two insertion holes of the pressure receiving body can be inserted together, and the remainder of the shoelace When tightening the portion, the pressure receiving body is positioned at the base of the remaining portion of the shoelace so that the left and right blades are pressed by the pressure receiving body, and the stopper is positioned in the immediate vicinity of the pressure receiving body. The lifting force from the shoehorn is When the pressure member is applied to the pressure receiving body, the two remaining portions of the shoelace are pressed against at least the inner surface of the insertion hole of the stopper body to position the stopper body, and the positioned stopper body presses the pressure receiving body. The remaining portion of the shoelace is tightened by preventing or reducing the movement in the raising direction.

  One of the features of the present invention is that the fastener is composed of a pressure receiving body and a stop body, the pressure receiving body is formed with a plurality of insertion holes, and the stop body is formed with at least one insertion hole. The two remaining portions of the shoelace are respectively inserted into the holes, and the two remaining portions inserted into the insertion holes of the pressure receiving body are inserted together into one insertion hole of the stopper.

  When tightening the shoelace, the pressure receiving body is slid to the root of the remaining portion of the shoelace, the left and right blades are pressed, and the stopper is slid along the remaining portion of the shoelace to the pressure receiving body. Then, when the lifting force from the shoehorn is applied to the pressure receiving body via the left and right blades, at least two remaining portions of the shoelace are pressed against the inner surface of the insertion hole of the stopping body to position the stopping body. Since the stoppers thus made prevent or reduce the movement of the pressure receiving body in the push-up direction, the remaining portion of the shoelace is securely tightened.

  In other words, in the state where the pressure receiving body and the stop plate are set as described above, when the force acts on the pressure receiving body in a direction to push up the pressure receiving body from the instep portion of the foot by bending the ankle or the like, the pressure receiving body and the stop body A force is applied to the remaining part of the shoelace between the two in the vicinity of the entrance of the insertion hole of the stopper (opening on the pressure receiving body side) and the two remaining parts are expanded to the left and right. The two insertion holes of the pressure receiving body are spaced apart from each other, and the remaining portion of the shoelace that is inserted into the insertion hole of the pressure receiving body and faces the insertion hole of the stop body is inclined at a large angle. Therefore, out of the force to push the two remaining portions to the left and right, the component in the direction of pulling out the remaining portions of the two shoelaces inserted through the insertion holes of the stopper (with respect to the stopper) The vertical component) is small. In addition, since the remaining portion of the shoelace is pressed against at least the inner surface of the insertion hole of the stopper in the insertion hole of the stopper, the relative removal of the remaining portion of the shoelace with respect to the stopper is prevented or reduced. .

  In addition, when the force from the shoehorn is applied to the pressure receiving body through the left and right blades, the two remaining portions of the shoelace are pressed against the inner surface of the insertion hole of the stopper, and the two remaining portions of the shoelace are mutually connected. If it comprises so that it may contact and the other may be prevented from coming off, a stop will prevent more reliably the movement of a pressure receiving body to the pushing-up direction.

  As a result, even if a force acts on the pressure receiving body in a direction to push up the pressure receiving body from the instep portion of the foot, erroneous writing in the direction in which the pressure receiving body comes off is more reliably prevented or reduced by the stop body. The remaining portion of the string does not loosen and is securely tightened.

  Slide the pressure-receiving body to the base of the remaining part of the shoelace as described above, hold down the left and right blades, and slide the stopper along the remaining part of the shoelace to the pressure-receiving body in that state. Since the parts can be tightened, the tightening operation is very simple and can be securely tightened.

  In addition, if the stopper is slid in the direction away from the root of the remaining portion of the shoelace, the prevention or reduction of the movement of the pressure receiver by the stopper is also released, and the pressure receiver can be freely slid. The remaining portion can be easily tightened.

  What is necessary is just to form at least two penetration holes of a pressure receiving body. The size of the insertion hole of the pressure receiving member is not limited so long as it can be inserted through one remaining portion of the shoelace, but the shoelace is a round cord or a flat cord, and a cord coated with wax or the like on the surface. Since there are laces of various thicknesses and surface properties, they may be appropriately selected according to the type of shoelaces, and all types of shoelaces can be accommodated depending on the structure of the fastener as in the embodiments described later. It may be.

  The interval between the two insertion holes of the pressure receiving body through which the two remaining portions of the shoelace are inserted may be any interval, but in order to securely tighten the remaining portion of the shoelace, It is recommended that the interval be approximately the same as the interval between the eyelet holes. This means that the remaining portion of the shoelace inserted through the uppermost eyelet holes of the left and right blades is inserted as it is or slightly bent into the insertion hole of the pressure receiving body. In this case, since the remaining part of the shoelace may be slightly bent, the distance between the insertion holes of the pressure receiving body may be slightly larger than the distance between the left and right eyelet holes at the time of tightening. Permissible.

  What is necessary is just to form at least 1 penetration hole of a stop. The size of the insertion hole of the stopper may be a size that allows the two remaining portions of the shoelace to be inserted together, but the shoelace has various thicknesses and surface properties. In order to allow the remaining portions to be inserted together, it may be appropriately selected according to the type of shoelace, and it can be adapted to all types of shoelaces by the structure of the fastener as in the embodiments described later. Also good.

  The pressure receiving body and the stopper body may be made of any material as long as the insertion hole can be formed, but a metal material or a hard plastic material is preferable in view of availability. The stopper can hold the remaining portion of the shoelace even if it has a certain degree of softness, so it can be made of a soft plastic material or rubber material.

  The pressure receiving body and the stopper may have any shape as long as the insertion hole can be formed, but if there is a large fastener on the ankle, it is easy to feel uncomfortable during walking. Therefore, the pressure receiving body and the stopper body are plate-shaped, and an insertion hole may be formed from one surface of the plate shape toward the other surface. Alternatively, the pressure receiving body is plate-shaped and one surface of the plate shape An insertion hole can be formed from one side to the other side, and the stopper can be formed in a ring shape, a cylindrical shape, a bottomed cylindrical shape, or a cap shape.

  That is, the pressure receiving body and the stopper may be plate-shaped, and a plurality of insertion holes and at least one insertion hole may be formed from one surface of the plate of the pressure receiving body and the stopper to the other surface. .

  In addition, the pressure receiving body has a plate shape, and a plurality of insertion holes are formed from one plate surface of the pressure receiving body to the other surface, while the stopper body has a ring shape or a cylindrical shape, and the ring of the stopper body A cylindrical or cylindrical hole portion may be used as one insertion hole.

  Furthermore, the pressure receiving body has a plate shape, and a plurality of insertion holes are formed from one surface of the pressure receiving body toward the other surface, while the stopper has a bottomed cylindrical shape. One insertion hole may be formed in the bottom of the stopper, and the remaining portion of the shoelace may be inserted from the opening opposite to the cylindrical bottom of the stopper toward the insertion hole.

  In addition, the pressure receiving body has a plate shape, and a plurality of insertion holes are formed from one surface of the plate shape to the other surface, while the stopper is a hemispherical cap shape, a semi-elliptical spherical cap shape, a truncated cone cap shape, Alternatively, a polygonal frustum cap shape may be formed, and one insertion hole may be formed at the top of the stopper.

  When the pressure receiving body and the stopper body are plate-shaped, if the pressure receiving body and the stopper body are locked together at the time of tightening the remaining portion of the shoelace, it cannot move in the direction in which the stopper body is pushed up (the direction to come off) Tighten more securely. That is, the pressure receiving body and the stop body can be provided with surface fasteners that are detachable from each other on their opposing surfaces. For this hook-and-loop fastener, for example, Velcro (registered trademark) can be used.

  Further, when the pressure receiving body and the stopper body are plate-shaped, even if the raised portion is formed on the pressure receiving body and the remaining portion of the shoelace is pressed against the insertion hole of the stopper body, it is inserted into the insertion hole of the stopper body. The remaining part of the shoelace is difficult to remove, so it can be tightened more securely. Therefore, a raised portion is formed between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, on the side facing the stopper, and the insertion hole of the stopper when the shoelace remaining portion is tightened by the raised portion It is also possible to configure so that the remaining portion of the shoelace inserted into the press is pressed against the peripheral portion of the insertion hole of the stop plate.

  The raised portion may be formed integrally with the pressure receiving body, or may be formed separately and adhered to the pressure receiving body, or may be fixed with a screw or the like. In addition, the shape of the raised portion is not particularly limited, and shapes such as a hemispherical shape, a truncated cone shape, and a truncated pyramid shape can be employed.

  Further, if the pressure receiving body and the stopper body are displaced in the left-right direction for some reason, and the insertion hole of one of the pressure receiving body and the insertion hole of the stopper body are aligned on a straight line, the lifting force from the shoehorn There is a possibility that one of the remaining portions of the shoelace may be easily removed when the is added. Therefore, the pressure receiving body and the stopper body are plate-shaped, and at least two insertion holes and at least one insertion hole are formed from one plate surface of the pressure receiving body and the stopper body to the other surface, while the shoelace. A rod-shaped positioning part is provided between the two insertion holes of the pressure receiving body through which the remaining part of the shoe is inserted, and the positioning part is inserted into the insertion hole of the stopping body so that the remaining part of the shoelace is inserted. The pressure receiving body and the stopper can be positioned relative to each other while being pressed against the inner surface of the stopper through hole.

  The positioning portion may be formed integrally with the pressure receiving body, or may be formed separately and adhered to the pressure receiving body, or may be fixed with a screw or the like. The positioning portion may be in the form of a rod (including both a solid rod shape and a hollow rod shape), and may have a length that can be inserted into the insertion hole of the stopper.

  When the pressure receiving body is plate-shaped and the stopper is ring-shaped or cylindrical, it is preferable that a rod-shaped positioning portion is formed on the pressure receiving body and inserted into the stopper. Moreover, when the rod-shaped positioning portion is formed in this way, the remaining portion of the shoelace is pressed against the inner surface or inner edge portion of the insertion hole of the stopper, and the shoelace can be tightened more securely.

  That is, between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a rod-shaped positioning portion is provided on the side facing the stopper body, and the positioning portion is inserted into the insertion hole of the stopper body and the shoelace is inserted. It is preferable that the remaining portion is pressed against the inner surface of the insertion hole of the stopper and the pressure receiving body and the stopper are positioned relative to each other.

  When the pressure receiving body is plate-shaped and the stopper is a bottomed cylinder, it is preferable that a rod-shaped positioning portion is formed on the pressure receiving body, and the cylindrical portion of the stopper is externally fitted thereto. . Moreover, when the rod-shaped positioning portion is formed in this way, the remaining portion of the shoelace is pressed against the inner surface of the tubular portion of the stopper, and the shoelace can be tightened more reliably.

  That is, a rod-shaped positioning part is provided between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, and the positioning part is inserted into the cylindrical part of the stopping body. It is preferable that the remaining portion of the shoelace is pressed against the inner surface of the cylindrical portion of the stopper and the pressure receiving body and the stopper are positioned relative to each other.

  Furthermore, when the pressure receiving body is plate-shaped and the stopper is cap-shaped, the pressure receiving body is formed with a rod-shaped positioning part, or a positioning part that can be advanced / retracted or retracted is urged in the protruding direction. It is preferable that a cap-shaped stopper is fitted on the outer surface. Moreover, when such a rod-shaped positioning portion is formed, the remaining portion of the shoelace is pressed against the inner surface of the cap-like portion of the stopper, and the shoelace can be tightened more securely.

  That is, a rod-shaped positioning part is provided between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, on the side facing the stopper, and the positioning part is inserted into the cap-like interior of the stopper. The remaining portion of the string can be pressed against the cap-shaped inner surface of the stopper, and the pressure receiving body and the stopper can be positioned relative to each other.

  In addition, a positioning portion is provided between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, on the side facing the stopper, and can be moved back and forth or expanded and contracted and urged in the protruding direction. It has a shape with a head at the tip of the rod-shaped part, inserts the head of the positioning part into the cap of the stopper, presses the remaining part of the shoelace against the cap-shaped inner surface of the stopper, and stops the pressure receiver You may comprise so that a body may be positioned mutually.

  When the positioning part that can be advanced and retracted or retracted is urged in the protruding direction in this way, the positioning part advances or retracts or expands and contracts depending on the thickness and properties of the shoelace, and the shoelace is placed on the inner surface of the cap-shaped stopper. Since pressing and positioning the positioning body, it is possible to handle all types of shoelaces of various thicknesses and surface properties, such as round cords, flat cords, and cords coated with wax on the surface, with a single type of fastener. .

  The head of the positioning part may have a smooth surface. However, if a minute unevenness or groove for preventing slipping is provided, the stopper can be prevented from slipping against the remainder of the shoelace, and the stopper can be positioned. Can be performed more reliably. That is, it is preferable that the surface of the head of the positioning portion is provided with non-slip micro unevenness or micro grooves.

  The positioning portion with the head may be a spring member, for example, a coil spring may be mounted between the head and the pressure receiving body and biased in the protruding direction, and the rod-shaped portion of the positioning portion with the head may be an elastic member. The rod-shaped portion of the positioning portion may be compressed and urged in the protruding direction with its restoring force when the stopper is externally fitted to the positioning portion.

  In addition, the positioning portion may be a single rod, but is composed of a plurality of rods extending in parallel with each other, preferably elastically deformable rods so that the remaining portion of the shoelace is strongly pressed against the inner surface of the insertion hole. Can also be done.

  In order to prevent the remaining portion of the shoelace from coming out of the insertion hole of the stopper, the remaining portion of the shoelace may be made difficult to slide on the inner surface and the peripheral surface of the pressure receiving body and the insertion hole of the stopper. Therefore, a soft layer portion is provided on at least one of the surface of at least the opposite half of the inner surface of the insertion hole of the pressure receiving body and the surface of the outer peripheral edge of at least the opposite side of the insertion hole of the stopper. preferable.

  Moreover, it can replace with the above-mentioned positioning part, can also comprise a receiving leg part, and can also comprise so that the remaining part of a shoelace may be clamped between the surfaces where this receiving leg part and a stop body oppose. That is, the pressure receiving body has a plate shape, two insertion holes are formed from one plate-like surface of the pressure receiving body toward the other surface, and receiving leg portions are provided between the two insertion holes. On the other hand, the stopper has a hemispherical cap shape, a semi-elliptical sphere cap shape, a truncated cone cap shape, or a polygonal frustum cap shape, and a single insertion hole is formed at the top of the stopper, and preferably a receiving leg and Anti-slip unevenness is formed on the opposing surface of the stopper, and the receiving leg is inserted into the cap-like inside of the stopper so that the shoelace remaining part is sandwiched together with the inner surface of the cap-like part. Can do.

  In addition, a locking leg is formed on the stopper, and a retaining projection is provided on the lower part of the locking leg, while an insertion groove is formed on the pressure receiving body, and the insertion groove is engaged with the enlarged groove. If the locking leg is inserted and the locking protrusion of the locking leg is brought into contact with the lower end edge of the insertion groove to prevent the locking leg from falling off, one of the locking body and the pressure receiving body is lost. This can eliminate the risk of being lost.

  Hereinafter, the present invention will be described in detail based on specific examples shown in the drawings. 1 and 2 show a preferred embodiment of a shoelace fastener according to the present invention. In the figure, a shoe 10 is provided with left and right blades 11, a shoehorn 12 is provided between the left and right blades 11, and a plurality of eyelet holes 13 are substantially equally spaced in the longitudinal direction on the left and right blades 11. It is formed side by side.

  A shoelace 14 is passed through the eyelet hole 13 from the bottom to the top by an appropriate method such as single, parallel, overlap, or underlap.

  The tightening tool 20 of this example is set in the remaining portion 15 of the shoelace 14 that has passed through the eyelet hole 13. The tightening tool 20 includes a pressure receiving plate (pressure receiving body) 21 and a stop plate (stop body) 22, and the pressure receiving plate 21 and the stop plate 22 are manufactured in a substantially rectangular shape using an appropriate plastic material. Note that the pressure receiving plate 21 and / or the stop plate 22 may be formed in a circular shape, a polygonal shape, a heart shape, or any other shape, instead of a rectangular shape.

  Two insertion holes 23 are formed in the pressure receiving plate 21 so as to be spaced apart from each other at the same level as the distance between the upper left and right eyelet holes 13 at the time of tightening. The size of the insertion hole 23 is set to a size that allows one remaining portion 15 of the shoelace 14 to be inserted.

  On the other hand, one insertion hole 25 is formed in the stop plate 22 substantially at the center. The insertion hole 25 is set to a size that allows the two remaining portions 15 of the shoelace 14 to contact the inner surface of the insertion hole 25 and to contact each other and be inserted together. The insertion hole 25 may be enlarged in a taper shape or a stepped shape toward one surface (surface on the pressure receiving plate 21 side) so that the two remaining portions 15 can be easily inserted.

  Further, a soft rubber layer (soft layer) is formed on the inner surface and peripheral surface of the insertion hole 23 of the pressure receiving plate 21 and the inner surface and peripheral surface of the insertion hole 25 of the stopper plate 22 as shown by dots in FIG. Part) 24 and 26 are formed by adhesion or coating to prevent the remaining portion 15 of the shoelace 14 from slipping. In place of the soft rubber, a soft synthetic resin or other soft material may be coated or bonded to form the soft layer portion.

  When using the tightening tool of this example, as shown in FIG. 1, the two remaining portions 15 of the shoelace 14 passed through the eyelet hole 13 are first inserted one by one into the two insertion holes 23 of the pressure receiving plate 21. Then, the two remaining portions 15 are inserted together into the insertion hole 25 of the stop plate 22.

  When the remaining portion 15 of the shoelace 14 is tightened, first, the pressure receiving plate 21 is slid along the remaining portion 15 to the root of the remaining portion 15 of the shoelace 14, and the left and right blades 11 and the shoehorn 12 are moved by the pressure receiving plate 21. Is pressed against the ankle, and the pressure receiving plate 21 is grasped with one hand and held in that position.

  Next, the stopper plate 22 is grasped with the other hand, and the stopper plate 22 is slid toward the pressure receiving plate 21 along the remaining portion 15 of the shoelace 14 to be positioned in the immediate vicinity of the pressure receiving plate 21. Since the remaining portion 15 of the shoelace 14 is sandwiched between the pressure receiving plate 21 and the stopper plate 22, the pressure receiving plate 21 and the stopper plate 22 are not completely in contact with each other due to the thickness of the shoelace 14.

  When the stop plate 22 is positioned in the immediate vicinity of the pressure receiving plate 21 in this way, for example, the ankle is bent during walking, and the stop plate 22 remains the remainder of the shoelace 14 even if a force acts in the direction of pushing up the pressure receiving plate 21 on the shoe ring 12. Positioned relative to the portion 15, the pressure plate 21 is prevented from moving by the stop plate 22, so that the remaining portion 15 of the shoelace 14 is securely tightened.

  That is, as shown in FIG. 2A, when a force F in the direction of pushing up from the ankle to the shoehorn 12 and the left and right blades 11 is applied, the shoelace 14 passing through the two insertion holes 23 of the pressure receiving plate 21 Since the two remaining portions 15 are put together and inserted into the insertion hole 25 of the stopper plate 22, they are attached to the two remaining portions 15 of the shoelace 14 between the pressure receiving plate 21 and the stopper plate 22. A force f0 pulling in an oblique direction is applied. This pulling force f0 can be decomposed into a component f1 parallel to the stopper plate 22 and a component f2 perpendicular to it.

  Since the distance between the pressure receiving plate 21 and the stop plate 22 is smaller than the distance between the two insertion holes 23 of the pressure receiving plate 21, the component f2 perpendicular to the stop plate 22 is compared with the magnitude of the tensile force f0. And get smaller.

  In addition, the remaining portion 15 of the shoelace 14 is not easily slipped by the soft rubber layer 24 in the insertion hole 23 of the pressure receiving plate 21, and the remaining portion 15 of the shoelace 14 has the soft rubber layer 26 in the insertion hole 25 of the stopper plate 22. Since the two remaining portions 15 of the shoelace 14 prevent the other from coming out from each other, since the contact with the inner surface of the insertion hole 25 and the mutual contact with each other, In combination, the stop plate 22 is positioned by the remaining portion 15 of the shoelace 14 against the pushing force received by the pressure receiving plate 21, and the pressure receiving plate 21 is restrained or prevented from moving in the direction of removal by the positioned stop plate 22. Therefore, the remaining portion 15 of the shoelace 14 cannot be loosened and is securely tightened.

  When removing the tightening, if the stop plate 22 is slid along the remaining portion 15 of the shoelace 14 in the direction away from the root of the remaining portion 15, the pressure receiving plate 21 is released from restraining or blocking its movement, and freely slides. Since the pressure receiving plate 21 is slid in a direction away from the root of the remaining portion 15 of the shoelace 14, the tightening of the remaining portion 15 of the shoelace 14 can be easily removed.

  FIGS. 3A and 3B show a second embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, surface fasteners such as male and female magic tapes (registered trademark) 26 and 27 are fixed to the opposing surfaces of the pressure receiving plate 21 and the stop plate 22 using an adhesive or the like.

  In the tightening tool of this example, when the remaining portion 15 of the shoelace 14 is fastened with the pressure receiving plate 21 and the stop plate 22, the pressure receiving plate 21 and the stop plate 22 are fixed to each other by the hook-and-loop fasteners 26 and 27. The remaining portion 15 of the shoelace 14 is more difficult to be removed from the insertion hole 25 of the stopper plate 22, and the remaining portion 15 of the shoelace 14 can be tightened more securely.

  4 (a) and 4 (b) show a third embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a hemispherical bulge portion 28 is formed between the two insertion holes 23 on the surface of the pressure receiving plate 21 facing the stopper plate 22. The raised portion 28 is manufactured in a hemispherical shape using rubber, plastic material, or the like, and is fixed to the pressure receiving plate 21 using an adhesive or the like, but is formed integrally when the pressure receiving plate 21 is manufactured. May be. If necessary, a soft layer portion is formed on the inner surface and the peripheral surface of the insertion hole 23 of the pressure receiving plate 21, the surface of the raised portion 28, the inner surface and the peripheral surface of the insertion hole 25 of the stop plate 22, and a shoelace. The remaining 14 portions 14 may be prevented from slipping, or the surface of the raised portion 128 may be formed with minute unevenness or grooves for preventing slipping.

  In the tightening tool of this example, when the remaining portion 15 of the shoelace 14 is fastened with the pressure receiving plate 21 and the stop plate 22, the remaining portion of the shoelace 14 in which the raised portion 28 of the pressure receiving plate 21 is passed through the insertion hole 25 of the stop plate 22. Since the portion 15 is pressed against the peripheral edge of the insertion hole 25 of the stop plate 22, the remaining portion 15 of the shoelace 14 is more difficult to be removed from the insertion hole 25 of the stop plate 22, and the remaining portion 15 of the shoelace 14 is more easily removed. It can be securely tightened.

  FIGS. 5A and 5B show a fourth embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a positioning rod (bar-shaped positioning portion) 29 is erected between the two insertion holes 23 on the surface of the pressure receiving plate 21 facing the retaining plate 22 by, for example, screwing or the like. If necessary, a soft layer portion is formed on the inner surface and the peripheral surface of the insertion hole 23 of the pressure receiving plate 21 and on the inner surface and the peripheral surface of the insertion hole 25 of the stopper plate 22, and the remaining portion 15 of the shoelace 14 is formed. You may make it slip.

  In the tightening tool of this example, when the remaining portion 15 of the shoelace 14 is tightened with the pressure receiving plate 21 and the stop plate 22, the positioning portion 29 of the pressure receiving plate 21 fits into the insertion hole 25 of the stop plate 22. The stop plate 22 is positioned relative to each other. As a result, the pressure receiving plate 21 and the stop plate 22 are not displaced from each other in the left-right direction for some reason, and the insertion hole 25 of the stop plate 22 and the one insertion hole 23 of the pressure receiving plate 21 coincide with each other. There is no possibility that one of the two remaining portions 15 of the shoelace 14 will come off.

  In addition, the positioning rod 29 fits into the insertion hole 25 of the stop plate 22 to reduce the area of the insertion hole 25, and the two remaining portions 15 of the shoelace 14 are strongly attached to the inner surface of the insertion hole 25 of the stop plate 22. By pressing, it is possible to reliably prevent the two remaining portions 15 of the shoelace 14 from coming off, and to tighten the remaining portion 15 of the shoelace 14 more reliably.

  If the positioning rod 29 is exposed on the surface of the stopper plate 22, the appearance is bad. Therefore, the remaining portion 15 of the shoelace 14 is inserted into a ring, for example, a metal ring or an elastic ring 210, and the ring 210 is inserted into the positioning rod 29. It is preferable that the positioning rod 29 is hidden by being fitted to the outside of 29.

  Moreover, when the ring 210 is externally fitted to the remaining portion 15 of the shoelace 14 and the positioning rod 29 in this way, the remaining portion 15 of the shoelace 14 is pressed against the positioning rod 29, and this also causes the two pieces of the shoelace 14 to move. The remaining portion 15 can be prevented from coming off, and the remaining portion 15 of the shoelace 14 can be tightened more reliably.

  6 (a) and 6 (b) show a fifth embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a ring-shaped stopper 210 is used instead of the plate-shaped stopper. The ring-shaped stopper 210 is made of a rubber or plastic material, but can be made of a metal material. If necessary, a soft layer portion may be formed on the inner surface and the peripheral surface of the insertion hole 23 of the pressure receiving plate 21 to prevent the remaining portion 15 of the shoelace 14 from slipping. Further, the stopper is not ring-shaped but may be cylindrical, for example, cylindrical or rectangular.

  In the tightening tool 20 of this example, the remaining portion 15 of the shoelace 14 is passed through the insertion hole 23 of the pressure receiving plate 21 and then inserted into the stopper 210. When the shoelace 14 is tightened, the pressure receiving plate 21 is slid to the base of the remaining portion 15 of the shoelace 14, and then the stopper 210 is slid to the nearest position of the pressure receiving plate 21 to be positioned with the remaining portion 15 of the shoelace 14. It is fitted on the rod 29.

  Then, the remaining portion 15 of the shoelace 14 is pressed against the inner peripheral surface of the ring-shaped stopper 210 and the outer surface of the positioning rod 29, and the two remaining portions 15 of the shoelace 14 are prevented from coming off. The remaining portion 15 is tightened.

  7A to 7D show a sixth embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a plastic positioning portion 211 is formed between the two insertion holes 23, 23 on the surface of the pressure receiving plate 21 facing the stop plate 22. This positioning part 211 is provided so that two large-diameter rods 211A and two small-diameter rods 211B are parallel to each other and the two small-diameter rods 211B are positioned on the long-diameter side of the ellipse. It is formed in a form that is divided into four.

  The stopper 213 is made of a plastic material and has a bottomed elliptical cylinder shape. One insertion hole 214 is formed at the bottom, and the two remaining portions 15 of the shoelace 14 are formed on the inner surface of the insertion hole 214. It is set to a size that can contact with each other and can be inserted together in contact with each other.

  Further, a locking recess 212 is formed in an annular shape on the outer peripheral surface of the positioning portion 211, and a locking projection 215 is formed in an annular shape on the inner surface of the stopper 213, and when the stopper 213 is externally fitted to the positioning portion 211. The locking projection 215 is fitted into the locking recess 212.

  If necessary, a soft layer portion is formed on the inner surface and peripheral surface of the insertion hole 23 of the pressure receiving plate 21, the inner surface of the stopper 213 and the inner surface and peripheral surface of the insertion hole 214, and the remaining portion 15 of the shoelace 14. You may make it slip. In addition, the stopper 213 may not be an elliptical cylinder but may be a cylinder or a square cylinder, and may be a cylinder corresponding to the shape of the rod-shaped positioning portion 211 when viewed from above the pressure receiving plate 21.

  In the tightening tool of this example, the remaining portion 15 of the shoelace 14 is passed through the insertion hole 23 of the pressure receiving plate 21 and then inserted into the insertion hole 214 of the stopper 213. When the shoelace 14 is tightened, the pressure receiving plate 21 is slid to the root of the remaining portion 15 of the shoelace 14, and the two remaining portions 15 of the shoelace 14 are moved to the left and right small-diameter rods 211 </ b> B of the positioning portion 211. After being positioned above, the stopper 213 is slid to the position close to the pressure receiving plate 21 and is fitted to the remaining portion 15 of the shoelace 14 and the positioning portion 211.

  Then, the stopper 213 is held in a state in which the locking protrusion 215 and the locking recess 212 are fitted to each other and are externally fitted to the positioning protrusion 211. At the same time, since the remaining portion 15 of the shoelace 14 is restricted from being expanded by the inner surface of the stopper 213, the small-diameter bar 211B of the positioning portion 211 is pressed inward, and the stopper is restored by the restoring force of the small-diameter bar 211B. It is strongly pressed against the inner surface of the cylindrical portion 213.

  For example, when a force is applied to push up the shoehorn 12 and the left and right blades 11 from the ankle, the remaining portion 15 of the shoelace 14 is strongly pressed against the inner surface of the insertion hole 214 of the stopper 213 and the inner surface of the cylindrical portion of the stopper 213. Therefore, the stopper 213 does not come off from the two remaining portions 15 of the shoelace 14, and the remaining portion 15 of the shoelace 14 is securely tightened.

  8A to 8D show a seventh embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a rod-shaped positioning portion 216 is provided between the two insertion holes 23 of the pressure receiving plate 21 so as to be able to advance and retract and to be urged in the protruding direction.

  That is, the rod-shaped positioning portion 216 has a shape in which a semi-elliptical spherical head portion 216B is fixed to the tip of the rod-shaped portion 216A, and a through hole is formed between the two insertion holes 23 of the pressure receiving plate 21. The rod-shaped portion 216A of the positioning portion 216 is slidably inserted, and a male screw is formed at the rear end portion of the rod-shaped portion 216A, and the nut 216D is screwed to prevent the positioning portion 216 from coming off.

  In addition, a coil spring is externally fitted to the rod-shaped portion 216A of the positioning portion 216 and is compressed between the head portion 216B and the pressure receiving plate 21, whereby the positioning portion 216 is urged in the protruding direction.

  On the other hand, the stopper 217 has a semi-elliptical sphere cap shape, an insertion hole 218 is formed at the top, and the remaining portion of the shoelace 14 is inserted through the insertion hole 23 of the pressure receiving plate 21 at the lower end edge of the stopper 217. A notch 219 for smoothly introducing 15 into the stopper 217 is formed oppositely.

  In the tightening tool of this example, the remaining portion 15 of the shoelace 14 is inserted through the insertion hole 218 of the stopper 217 after passing through the insertion hole 23 of the pressure receiving plate 21. When the shoelace 14 is tightened, the pressure receiving plate 21 is slid along the remaining portion 15 of the shoelace 14 to the root of the remaining portion 15 of the shoelace 14, and the two remaining portions 15 of the shoelace 14 are moved to the positioning portion. After the surface of the head 216B of 216 is aligned, the stopper 217 is slid to the position close to the pressure receiving plate 21 and is fitted onto the head 216B of the positioning portion 216.

  Then, the remaining portion 15 of the shoelace 14 is strongly pressed against the inner surface of the cap-shaped portion of the stopper 217 by the biasing force of the coil spring 216C of the positioning portion 216, and the stopper 217 is positioned with respect to the remaining portion 15 of the shoelace 14. Therefore, the stopper 217 is held in a state of being fitted on the head 216B of the positioning portion 216.

  For example, when a force for pushing up the shoehorn 12 and the left and right blades 11 from the ankle is applied, the remaining portion 15 of the shoelace 14 is strongly pressed against the inner surface of the insertion hole 218 of the stopper 217 and the inner surface of the cap-shaped portion of the stopper 217. Therefore, the stopper 217 does not come off from the two remaining portions 15 of the shoelace 14, and the remaining portion 15 of the shoelace 14 is securely tightened.

  FIG. 9 shows an eighth embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, a positioning portion 220 that can be expanded and contracted is provided between the two insertion holes 23 of the pressure receiving plate 220 so as to be urged in the protruding direction by its elastic restoring force.

  That is, the positioning portion 220 is configured by fixing a semi-elliptical spherical head 220B to the tip of the rod-shaped portion 20A, and the rod-shaped portion 220A is made to be extendable and contractible by an elastic member such as a spring member, rubber, sponge, etc. The lower end of is fixed to the pressure receiving plate 21 using an adhesive, a screw or the like.

  In the tightening tool of this example, the remaining portion of the shoelace is passed through the insertion hole 23 of the pressure receiving plate 21 and then inserted into the insertion hole of the stopper, and the pressure receiving plate 21 is moved along the remaining portion of the shoelace. After sliding the two remaining portions of the shoelace along the surface of the head 220B of the positioning portion 220, the stopper is slid to the position close to the pressure receiving plate 21, and this is moved to the head 220B of the positioning portion 220. Fit outside.

  Then, the rod-shaped portion 220A of the positioning portion 220 is contracted by pushing the stopper, and the remaining portion of the shoelace is strongly pressed against the inner surface of the cap-shaped portion of the stopper by the restoring force of the rod-shaped portion 220A of the positioning portion 220. Is positioned with respect to the remaining portion of the shoelace, so that the stopper is held in a state of being fitted on the head 220B of the positioning portion 220.

  Since the behavior of the fastener when a lifting force is applied from the ankle is the same as in the seventh embodiment, a detailed description thereof is omitted.

  10 to 13 show a ninth embodiment, in which the same reference numerals as those in FIGS. 1 and 2 denote the same or corresponding parts. In this example, the stopper 22 has an oval cap shape, and an insertion hole 221 is formed on the top of the stopper 22 in one direction of the short axis, and an anti-slip unevenness 223 is formed on the inner surface of the stopper 22. ing.

  Further, locking leg portions 222 are formed at both ends of the short axis direction on the lower end edge of the stopper 22, and a temporary fixing protrusion 224 is projected outwardly from the upper end of the locking leg portion 222. A retaining projection 223 is provided at the lower end of the locking leg 222 so as to project inward.

  On the other hand, the pressure receiving plate 21 has an oval shape, and two insertion holes 23 are formed at intervals in the direction of the long axis, and two receiving leg portions 231 having an arc shape stand between the insertion holes 23. Further, they are formed so as to face each other, and unevenness for slip prevention is formed on the surface of the receiving leg portion 231.

  Further, the pressure receiving plate 21 is formed with insertion long grooves (insertion grooves) 230 that are spaced in the direction of the short axis and extend in the direction of the long axis, and at one end of the insertion long groove 230, the width of the groove is increased. A groove portion 230 </ b> A is formed, and the locking leg portion 222 of the stopper 22 is inserted from the widened groove portion 230 </ b> A and rotated along the insertion long groove 230, whereby the retaining protrusion 223 is caught on the lower end edge 230 </ b> C of the insertion long groove 230. On the other hand, when the stopper 22 is brought close to the pressure receiving plate 21, the temporary fixing protrusion 224 of the locking leg 222 is hooked on the locking recess 230 </ b> B of the insertion long groove 230 and temporarily fixed. . Further, the pressure receiving plate 21 is formed with a cover portion 24 that covers the locking leg portion 222.

  In the tightening tool of this example, the remaining portion 15 of the shoelace 14 is passed through the insertion hole 23 of the pressure receiving plate 21, the two remaining portions 15 of the shoelace 14 are received along the surface of the leg portion 231, and then the stopper 22. The insertion hole 221 is inserted. Then, the locking protrusions 223 of the locking legs 222 of the stopper 22 are inserted through the widening groove 230A of the insertion long groove 230 of the pressure receiving plate 21, and the locking legs 222 are inserted into the insertion long grooves 230. When the stop plate 22 is rotated so that the portion 222 moves along the insertion long groove 230, even if an attempt is made to pull out the locking leg 222 from the insertion long groove 230, the retaining protrusion 223 of the locking leg 222 is inserted into the insertion long groove. It will be caught by the lower end edge 230C of 230, and will be prevented from coming off.

  When tightening the shoelace 14, the set of the pressure receiving plate 21 and the stopper 22 is slid along the remaining portion 15 of the shoelace 14 to the base of the remaining portion 15 of the shoelace 14, and then the remaining portion 15 of the shoelace 14. The stopper 22 is pushed into the pressure receiving plate 21 while pulling.

  Then, the temporarily fixing projection 224 of the locking leg portion 222 of the stopper 22 is hooked on the locking recess 230B of the insertion long groove 230 of the pressure receiving plate 21 and temporarily fixed, and the remaining portion 15 of the shoelace 14 is fixed to the stopper 22. Is pressed between the inner surface of the stopper body 22 and the unevenness for preventing slippage of the receiving leg portion 231 of the pressure receiving plate 21, so that the stopper body 22 and the pressure receiving plate 21 are connected to the shoelace 14. The remaining portion 15 is held at the root position.

  For example, when a force to push up the shoehorn 12 and the left and right blades 11 from the ankle is applied, the remaining portion 15 of the shoelace 14 is strongly pressed against the inner surface of the insertion hole 23 of the stopper 22 and the inner surface of the stopper 22 and the pressure receiving force. Since the holding legs 22 of the plate 21 are strongly sandwiched between the unevennesses for preventing slipping, the stopper 22 does not come off from the two remaining portions 15 of the shoelace 14, and the remaining portion 15 of the shoelace 14 is Securely tightened.

  Note that when a stop plate is used as the stop body, the shape of the insertion hole is not particularly limited. However, as shown in FIG. 14, if the semicircular insertion hole 25 is used, the remaining through the insertion hole 25 of the stop plate 22. The portion 15 is guided downward by the shape of the insertion hole 25, and the remaining portion 15 can be prevented from obstructing walking or the like.

  In addition, when the remaining portion 15 of the shoelace 14 is tightened using the tightening tool of each of the above examples, the remaining portion 15 remains long and may interfere with walking. Accordingly, as shown in FIG. 15, after the remaining portion 15 is passed through the hollow portion of the locking cylinder 50, the remaining portion 15 is folded back through the two holes of the locking piece 51 so as to have an appropriate length. When the locking piece 51 is pulled into the locking cylinder 50 by pulling 15, the locking piece 51 is fitted into the locking cylinder 50 and cannot be removed. Therefore, if the distal end side of the remaining portion 15 of the shoelace 14 is cut at an appropriate position 52, the remaining portion 15 can be shortened and can be prevented from interfering with walking.

  FIG. 16 shows another example of the processing structure on the distal end side of the remaining portion 15 of the shoelace 14. In the figure, the same reference numerals as those in FIG. In this example, one insertion hole is formed in the locking piece 51, and serrated anti-slip protrusions 51 </ b> A are formed on the front and rear surfaces of the back surface, and slip when the locking piece 51 is pulled into the locking cylinder 50. Since the remaining portion 15 of the shoelace 14 is prevented from coming off by the stop protrusion 51A, the remaining portion 15 may be cut immediately before 52.

1 is a schematic perspective view showing a shoe provided with a preferred embodiment of a shoelace fastener according to the present invention. It is a figure which shows the principal part structure of the said embodiment, and the structure of a fastener. It is a figure which shows the structure of the fastener in 2nd Embodiment, and the principal part structure of embodiment. It is a figure which shows the structure of the fastener in 3rd Embodiment, and the principal part structure of embodiment. It is a figure which shows the structure of the fastener in 4th Embodiment, and the principal part structure of embodiment. It is a figure which shows the structure of the fastener in 5th Embodiment, and the principal part structure of embodiment. It is a figure which shows the structure of the fastener in 6th Embodiment, a stop body, a pressure receiving plate, and the principal part structure of embodiment. It is a figure which shows the structure of the fastener in 7th Embodiment, a stop body, a pressure receiving plate, and the principal part structure of embodiment. It is a figure which shows the structure of the pressure receiving plate in 8th Embodiment. It is a figure which shows the structure of the stopper in 9th Embodiment. It is a figure which shows the structure of the pressure receiving plate in the said embodiment. It is a figure which shows the state which loosened the shoelace in the said embodiment. It is a figure which shows the state which fastened the shoelace in the said embodiment. It is a figure which shows the modification of the penetration hole of a stop plate. It is a figure which shows typically an example of the process structure of the front end side of the shoelace residual part in each said embodiment. It is a figure which shows typically the other example of the process structure of the front end side of a shoelace residual part.

Explanation of symbols

DESCRIPTION OF SYMBOLS 10 Strap-on type shoes 11 Wings 12 Shoehorn 13 Eyelet hole 20 Fastening tool 21 Pressure receiving plate (pressure receiving body)
22 Stopping Plate (Stopping Body) 23, 25 Insertion Hole 26, 27 Surface Fastener 28 Raised Part 29 Positioning Part 210 Stopper 211 Positioning Part 213 Stopper 214 Insertion Hole 216 Positioning Part 216A Rod Part 216B Head 216C Coil Spring 217 Stopper 218 Insertion hole 220 Positioning part 220A Bar-shaped part 220B Head 221 Insertion hole 222 Locking leg part 223 Retaining prevention protrusion 231 Receiving leg part 223 Relief unevenness

Claims (18)

In the tightening tool for tightening the remaining portion of the shoelace inserted through the eyelet holes of the left and right feathers in the shoelace type shoe,
A plurality of insertion holes are formed, two pressure-receiving bodies that receive the push-up force from the shoehorn when tightening are inserted through two of the plurality of insertion holes one by one through the remaining portions of the shoelace,
At least one insertion hole is formed, and the size of the at least one insertion hole is such that the two remaining portions of the shoelace inserted through the two insertion holes of the pressure receiving body can be inserted together. With a stop,
When tightening the remaining portion of the shoelace, the pressure-receiving body is positioned at the base of the remaining portion of the shoelace so that the left and right blades are pressed by the pressure-receiving body, and the stopper body is Position it close to your body,
When the lifting force from the shoehorn is applied to the pressure receiving body via the left and right blades, the two remaining portions of the shoelace are pressed against at least the inner surface of the insertion hole of the stopper, whereby the stopper is The shoelace tightening characterized in that the remaining portion of the shoelace is tightened by being positioned and the positioned stopper preventing or reducing the movement of the pressure receiving body in the push-up direction. Ingredients.   When the pushing-up force from the shoehorn is applied to the pressure receiving body, the two remaining portions of the shoelace are pressed against the inner surface of the insertion hole of the stopper and move in the other pulling direction. The shoelace fastener according to claim 1, wherein the stopper is positioned by regulating or reducing the height of the shoelace.   The pressure receiving body and the stopper body are plate-shaped, and the plurality of insertion holes are formed from one surface of the pressure receiving body toward the other surface, and from one plate surface of the stopper body to the other. The shoelace fastener according to claim 1 or 2, wherein the at least one insertion hole is formed toward the surface of the shoelace.   The shoelace fastener according to any one of claims 1 to 3, wherein the pressure receiving body and the stopper are provided with surface fasteners that are detachable from each other on opposite surfaces thereof.   Between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a raised portion is formed on the side facing the stopper, and the raised portion is stopped when the shoelace remaining portion is tightened. The shoelace fastener according to any one of claims 1 to 3, wherein a remaining portion of the shoelace inserted through the body insertion hole is pressed against a peripheral portion of the insertion hole of the stopper plate.   The pressure receiving body and the stopper are plate-shaped, and the plurality of insertion holes are formed from one plate-like surface of the pressure-receiving body toward the other surface, and from the plate-like one surface of the stopper to the other While the at least one insertion hole is formed toward the surface of the shoe, a rod-like shape is formed between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, on the side facing the stopper. A positioning portion is provided, and the positioning portion is inserted into the insertion hole of the stopper body, presses the remaining portion of the shoelace against the inner surface of the insertion hole of the stopper body, and positions the pressure receiving body and the stopper body relative to each other. The shoelace fastener according to claim 1 configured as described above.   The pressure receiving body has a plate shape, and the plurality of insertion holes are formed from one surface of the pressure receiving body toward the other surface, while the stopper body has a ring shape or a cylindrical shape, The shoelace fastener according to claim 1, wherein a ring-shaped or cylindrical hole portion of the stopper is the insertion hole.   Between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a rod-shaped positioning portion is provided on the side facing the stopper, and the positioning portion is the ring-shaped or cylindrical stopper. The shoelace according to claim 7, wherein the shoelace is inserted into an insertion hole of the body and presses the remaining portion of the shoelace against the inner surface of the insertion hole of the stopper, and the pressure receiving body and the stopper are positioned relative to each other. Fastener.   The pressure receiving body has a plate shape, and the plurality of insertion holes are formed from one surface of the pressure receiving body to the other surface, while the stopper has a bottomed cylindrical shape, The insertion hole is formed in the bottom of the bottomed cylindrical stopper, and the remaining portion of the shoelace is inserted from the opening opposite to the cylindrical bottom of the stopper toward the insertion hole. The shoelace fastener according to claim 1.   Between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a rod-like positioning portion is provided on the side facing the stopper, and the positioning portion is formed of the bottomed cylindrical stopper. The shoelace according to claim 9, wherein the shoelace is inserted into the tubular portion and presses the remaining portion of the shoelace against the inner surface of the tubular portion of the stopper, and positions the pressure receiving body and the stopper relative to each other. The fasteners.   The pressure receiving body has a plate shape, and the plurality of insertion holes are formed from one surface of the pressure receiving body toward the other surface, while the stopper is a hemispherical cap shape, a semi-elliptical spherical cap The shoelace fastener according to claim 1, wherein the shoelace has a shape, a truncated cone shape, or a polygonal truncated cone shape, and one insertion hole is formed at the top of the stopper.   Between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a rod-shaped positioning portion is provided on the side facing the stopper, and the positioning portion is inserted into the cap-shaped inside of the stopper. 12. The shoelace fastener according to claim 11, wherein the remaining portion of the shoelace is pressed against the inner surface of the cap-shaped portion of the stopper, and the pressure receiving body and the stopper are positioned relative to each other.   Between the two insertion holes of the pressure receiving body through which the remaining portion of the shoelace is inserted, a rod-shaped positioning portion is provided on the side facing the stopper body so as to be able to advance and retract or extend and retract in a protruding direction. The positioning portion has a shape in which a head is provided at the tip of the rod-shaped body, and the head of the positioning portion is inserted into the cap-shaped portion of the stopper, so that the remaining portion of the shoelace is attached to the stopper. 12. The shoelace fastener according to claim 11, wherein the shoelace is pressed against the inner surface of the cap-shaped portion and the pressure-receiving body and the stopper are positioned relative to each other.   14. The shoelace fastener according to claim 13, wherein the surface of the head portion of the positioning portion is provided with minute unevenness for preventing slippage.   The shoelace fastener according to claim 6, 8, 10, or 12, wherein the positioning portion is composed of a plurality of rod-like bodies extending in parallel to each other.   A soft layer portion is provided on at least one of the surface of at least the opposite half of the inner surface of the insertion hole of the pressure receiving body and the surface of the outer peripheral edge of at least the opposite side of the insertion hole of the stopper. The shoelace fastener according to any one of 1 to 13.   The pressure receiving body has a plate shape, two insertion holes are formed from one surface of the pressure receiving body to the other surface, and a receiving leg portion is provided between the two insertion holes. On the other hand, the stopper has a hemispherical cap shape, a semi-elliptical sphere cap shape, a truncated cone cap shape, or a polygonal frustum cap shape, and one insertion hole is formed at the top of the stopper, An anti-slip unevenness is formed on the opposing surface of the stopper and the stopper, and the receiving leg portion is inserted into the cap-shaped inside of the stopper and the remaining portion of the shoelace together with the inner surface of the cap-shaped portion. The shoelace fastener according to claim 1, wherein the shoelace is clamped. A locking leg is formed on the stopper, and a protrusion for retaining is provided at a lower portion of the locking leg, while an insertion groove is formed on the pressure receiving body, and the insertion groove The locking leg is inserted from the widening groove, and the locking protrusion of the locking leg and the lower end edge of the insertion groove are in contact with each other to prevent the locking leg from falling off. Item 20. A shoelace fastener according to any one of Items 1 to 17.

Images