JP3198713U - Slider with slider mounting tool - Google Patents

Abstract

There is provided a slider provided with a mounting tool for a slider that can be easily attached to a handle without reducing the structure, and can reduce wobbling of the handle when the handle is not operated. A slider includes a body, a mounting post, and a handle part, and a slider mounting tool is mounted thereon. The slider mounting tool includes a main body 51 in which a slit hole 59 is formed, a pair of connecting portions 53A and 53B each having one end connected to the main body, and a press connected to the other end of the pair of connecting portions. Part 55. In the main body 51, the handle portion 21 is inserted into the slit hole 59, and the pair of connecting portions 53 </ b> A and 53 </ b> B are arranged to be curved from the space between the handle portion 21 and the upper wing portion 13 to the upper surface of the mounting column 19. 55 is arranged on the upper surface of the mounting column 19. The pulling part 21 is urged in a direction to fall to the upper wing part 13 side. [Selection] Figure 1

Description

  The present invention relates to a slider provided with a slider mounting tool.

  A slide fastener attached to clothes, bags, etc. has a handle connected to a slider that opens and closes the fastener. This puller shakes and generates a contact sound when exercising while wearing clothes or carrying a bag. For example, when jogging while wearing sportswear, the handle swings rhythmically and an irritating contact sound is generated. Since this contact sound is annoying for those who jog, measures to mute the contact sound are taken (for example, see Patent Documents 1 and 2).

  In Patent Document 1, a ring-like handle is attached to a part of the slider as a measure for noise reduction. In this puller, the free end on the side opposite to the attachment side to the slider presses the fabric of the fastener element or the wear. This prevents the puller from bouncing and suppresses the generation of contact sound. Moreover, in patent document 2, as a countermeasure against noise reduction, a flexible handle assist tool is attached using an attachment hole or a knob hole formed in the handle. Thereby, swinging of the handle is suppressed.

US Pat. No. 5,101,538 JP 2004-313517 A

  However, in the configuration of Patent Document 1, since the handle is a dedicated design product, the versatility is poor and the cost is high. In the configuration of Patent Document 2, the shape of the pull assist tool is complicated, and the work of attaching to the pull handle becomes complicated. In addition, when the assisting tool is attached to the handle, the handle tends to be lifted from the slider, and the handle may become an obstacle when the handle is not operated.

  The present invention has been made in view of the above-described circumstances, and the purpose of the present invention is to mount a slider that can be easily attached to a pull handle without a complicated configuration and can reduce the swing of the pull handle when the pull handle is not operated. The object is to provide a slider with a tool.

The above object of the present invention is achieved by the following configuration.
(1) A fuselage having an upper wing portion and a lower wing portion that are spaced apart from each other in parallel, an attachment column that protrudes upward from the upper wing portion, and a handle portion that is rotatably attached to the attachment column. A slider having a slider mounting tool mounted on a slider for a slide fastener having a slider, the slider mounting tool having a main body portion in which a slit hole is formed, and the main body A pair of connecting portions each having one end connected to the portion, and a pressing portion connected to the other end of the pair of connecting portions,
The body portion has the handle portion inserted through the slit hole,
The pair of connecting portions are arranged to be curved toward the upper surface of the mounting column from between the handle portion and the upper wing portion,
The pressing portion is disposed on the upper surface of the mounting column,
The slider having a mounting tool for a slider, wherein the pulling portion is urged in a direction to fall toward the upper wing portion side by an elastic restoring force of the connecting portion.
(2) The pull portion includes an intermediate connection body that is rotatably attached to the attachment column, and a pull handle that is rotatably attached to a side opposite to the attachment column of the intermediate connection body,
The slider provided with the mounting tool for a slider according to (1), wherein the main body portion is mounted in a state in which the handle pulls out of the slit hole and the intermediate connector is accommodated in the slit hole. .
(3) The slider including the slider mounting tool according to (1) or (2), wherein the pressing portion has a notch in a part of a portion of the mounting column that spans the upper surface.
(4) A fuselage having an upper wing portion and a lower wing portion that are spaced apart from each other in parallel, an attachment column that protrudes upward from the upper wing portion, and a handle portion that is rotatably attached to the attachment column. A slider having a slider mounting tool, wherein the slider mounting tool is mounted on a slider for a slide fastener,
The slider mounting tool includes a main body part in which a slit hole is formed, a pair of connecting parts each connected to the main body part, and a pressing part connected to the other end part of the pair of connecting parts. Have
The body portion has the handle portion inserted through the slit hole,
The pair of connecting portions are disposed between a shoulder portion on the attachment column side of the pulling portion and the upper wing portion,
The pressing portion is disposed on the upper surface of the mounting column,
A slider provided with a mounting tool for a slider, wherein the pulling portion is biased by elastic deformation in a direction in which the pulling portion is inclined to the upper wing portion side.
(5) The slider provided with the mounting tool for a slider according to any one of (1) to (4), wherein the pressing portion is formed to be thicker than the connecting portion.
(6) Any one of (1) to (5), wherein the main body portion has an abutting portion that prevents the pulling portion from coming off in the insertion direction of the pulling portion inside the slit hole. A slider provided with the slider mounting tool according to one.
(7) The slider provided with the mounting tool for a slider according to any one of (1) to (6), wherein the main body, the connecting portion, and the pressing portion are integrally formed.
(8) A slider provided with the mounting tool for a slider according to any one of (1) to (7), which is formed of silicon rubber or silicon resin.

  According to the slider provided with the mounting tool for the slider of the present invention, the mounting tool for the slider can be easily attached to the handle without using a complicated configuration. In addition, it is possible to reduce the wobbling of the pull when the pull is not operated, and the pull does not get in the way.

It is a figure for demonstrating embodiment of this invention, and is an external appearance perspective view which shows the slider for slide fasteners, and the mounting tool for sliders with which this slider is mounted | worn. (A) is an external perspective view of the front side of the mounting tool, (B) is an external perspective view of the back side of the mounting tool. It is an AA line sectional view of the wearing tool shown in Drawing 2 (A). FIG. 4 is a cross-sectional view of the wearing tool shown in FIG. It is an external appearance perspective view of the slider with which the mounting tool was mounted | worn. It is a side view of the slider with which the mounting tool shown in FIG. 5 was mounted. It is an external appearance perspective view which shows a slider and the mounting tool with which this slider is mounted | worn. It is an external appearance perspective view which shows a mounting tool. It is CC sectional view taken on the line of the mounting tool shown in FIG. It is the DD sectional view taken on the line of the mounting tool shown in FIG. It is an external appearance perspective view of the slider which shows the state which mounted | wore the mounting tool with the slider. It is a side view of the slider with which the mounting tool shown in FIG. 11 was mounted | worn.

Hereinafter, an embodiment of a slider provided with a mounting tool for a slider according to the present invention will be described in detail based on the drawings.
<First configuration example>
FIG. 1 is a view for explaining an embodiment of the present invention. A slide fastener slider (hereinafter simply referred to as a slider) 11 and a slider mounting tool (hereinafter simply referred to as a mounting tool) mounted on the slider 11. FIG. The slider 11 of this configuration shown as an example is a slider for a hidden slide fastener that hides a fastener element (service tooth) (not shown).

  The slider 11 includes a body 17 having an upper wing portion 13 and a lower wing portion 15 that are spaced apart from each other in parallel, a mounting column 19 that protrudes upward from the upper wing portion 13, and a mounting column 19 that is rotatable. And a handle portion 21 to be attached.

  In this specification, regarding the slider 11, the direction in which the slider 11 moves along the fastener element is the slide direction (X direction), and is perpendicular to the slide direction on a plane parallel to the upper wing portion 13 and the lower wing portion 15. The direction to perform is referred to as the width direction (Y direction), and the thickness direction perpendicular to the slide direction and the width direction is referred to as the vertical direction (Z direction). Further, the side of the slider 11 where the fastener element is separated is the front side, the side where the fastener element is engaged is the rear side, the side from which the mounting column 19 protrudes from the body 17 of the slider 11 is the upper side (front side), and the opposite side is the lower side ( Called the back side). Further, regarding the handle part 21, the plate thickness direction of the handle part 21 in the state of being laid down by the body 17 of the slider 11 is defined as the vertical direction (Z direction).

  The body 17 of the slider 11 includes a pair of side walls 23 erected on both sides in the width direction of the lower wing part 15, and a guide column 25 erected at the center in the width direction on the front side of the lower wing part 15. And a mounting column 19 configured. A pair of upper wing portions 13 that are bent inward in the width direction are formed at the upper ends of the pair of side walls 23. The mounting column 19 has a guide column 25 in a region through which a fastener element below the upper wing portion 13 passes.

  The body 17 has a shoulder opening 27 between the pair of side walls 23 and the guide pillars 25 facing the side walls 23 on the front side. Moreover, the trunk | drum 17 has the rear port 29 between the inner surfaces in a pair of side wall 23 in the rear side. The shoulder opening 27 and the rear opening 29 serve as a passage through which a fastener element (not shown) is inserted.

  A concave groove 31 is formed in the upper portion of the mounting column 19 along the sliding direction. A hook-shaped claw hook 33 having a locking claw 33a at one end is loosely fitted in the concave groove 31. A shaft hole is formed in the base portion of the claw rod 33, and a support shaft 35 penetrating the mounting column 19 in the width direction is inserted into the shaft hole. Thus, the mounting column 19 is configured to support the claw rod 33 so as to be rotatable about the support shaft 35.

  A clamper 39 as an intermediate connecting body to which the handle 37 is coupled is attached to the locking claw 33a of the claw bar 33. The clamper 39 has a proximal end side mounting shaft 41 coupled to the claw rod 33 and a distal end side mounting shaft 43 coupled to the handle 37. The handle 37 is a long knob, and a through hole 45 through which the distal end side mounting shaft 43 of the clamper 39 is inserted is formed at the base end portion.

  The slider 11 includes an automatic stop mechanism. That is, the claw rod 33 has a pressing portion (not shown) formed on the base portion opposite to the locking claw 33a with the support shaft 35 interposed therebetween. This pressing portion receives an elastic repulsion force from a spring (not shown) installed in the mounting column 19 and is biased in a direction away from the lower wing portion 15 of the body 17.

  Then, the locking claw 33a of the claw rod 33 is pushed down to the lower wing part 15 side with the support shaft 35 as a fulcrum, and the tip of the locking claw 33a is locked to a fastener element (not shown). In this state, the slider 11 is prevented from moving in the sliding direction. When the handle 37 is pulled by the operator, the claw rod 33 is pulled up via the clamper 39, and the engagement between the tip of the engagement claw 33a and a fastener element (not shown) is released. In this state, the slider 11 is movable in the sliding direction.

  The slider 11 is made of, for example, a die-cast product of a metal material such as a zinc alloy or an aluminum alloy, or an injection-molded product of a resin material.

  Next, the mounting tool 100 mounted on the slider 11 having the above configuration will be described. 2A is an external perspective view of the front side of the wearing tool 100, and FIG. 2B is an external perspective view of the back side of the wearing tool 100. As shown in FIGS. 2A and 2B, the wearing device 100 includes a main body 51, a pair of connecting portions 53A and 53B each having one end connected to the main body 51, and a pair of connecting portions 53A, And a pressing portion 55 connected to the other end of 53B. A hole 57 surrounded by a pair of connecting portions 53A and 53B is formed between the pressing portion 55 and the main body 51.

3 is a cross-sectional view taken along line AA of the wearing tool 100 shown in FIG. 2A, and FIG. 4 is a cross-sectional view taken along line BB of the wearing tool 100 shown in FIG.
In the main body 51, a slit hole 59 parallel to the bottom surface 51 a of the main body 51 is formed from the side surface 58 on the hole 57 side toward the inside of the main body 51. Further, a hole 61 is formed in the main body 51 so as to be recessed from the bottom surface 51a.

  In the main body 51, one slit opening 59 a of the slit hole 59 opens in the side surface 58, and the other slit opening 59 b opens in the hole 61. That is, the slit hole 59 is formed through the main body 51 from the slit opening 59 a on the side surface 58 to the hole 61.

  The pressing portion 55 is formed with a larger thickness than the connecting portions 53A and 53B. As shown in FIG. 2A, a notch 56 is formed on the side of the hole 57 at the center in the width direction of the pressing portion 55.

  The mounting tool 100 having the above configuration is a flexible elastic body integrally formed by injection molding or compression molding. For example, the mounting tool 100 is made of a resin such as polyurethane, silicone, polyester elastomer, polyether elastomer, synthetic rubber, or natural rubber. Become. As a material of the mounting tool 100, silicone rubber or silicone resin is particularly preferably used.

  The slit hole 59 is formed so that the handle portion 21 can be inserted therethrough. In the case of this configuration, the slit hole 59 is dimensioned in the vertical and width directions that the clamper 39 can be accommodated in the slit hole 59 by elastic deformation of the main body 51. The hole 61 has such a size that the tip of the handle 37 inserted through the slit hole 59 can be pulled out by elastically deforming the main body 51. These hole 57, slit hole 59, and hole 61 are formed by a slide core or the like at the time of mold forming.

  FIG. 5 is an external perspective view of the slider 11 on which the mounting tool 100 is mounted. The mounting tool 100 is mounted on the slider 11 by the operator along the locus indicated by the arrow P1 in FIG.

  Here, a specific mounting procedure of the mounting tool 100 will be described with reference to FIGS. First, the tip of the handle 37 is inserted from the lower side of the hole 57 toward the upper side. Then, the tip of the handle 37 that has come out of the hole 57 is inserted into the slit hole 59 from the slit opening 59a, and protrudes into the hole 61 from the slit opening 59b. Next, the tip of the protruding handle 37 is pulled out to the lower side of the hole 61. As a result, the handle 37 passes through the slit hole 59, and the clamper 39 remains inserted in the slit hole 59. Next, the pressing portion 55 is pulled up, and the pressing portion 55 is disposed on the upper surface of the mounting column 19. At this time, the claw hook 33 is locked in the notch 56 formed on the hole 57 side at the center in the width direction of the pressing portion 55. The mounting tool 100 is mounted on the slider 11 by the above procedure.

  Next, operational effects when the mounting tool 100 having the above-described configuration is mounted on the slider 11 will be described. 6 is a side view of the slider 11 on which the mounting tool 100 shown in FIG. 5 is mounted.

  In a state where the mounting tool 100 is mounted on the slider 11, the clamper 39 is inserted into the slit hole 59 of the main body 51, and the proximal end portion of the handle 37 is disposed in the hole 61. In addition, the tip of the handle 37 is in a state of coming out of the slit hole 59 and the hole 61. The clamper 39 is prevented from coming off from the main body 51 when a part of the proximal end of the handle 37 abuts against the abutting portion 61 a formed in the hole 61 of the main body 51.

  A pair of connecting portions 53 </ b> B (same for 53 </ b> A) extending from the main body portion 51 are arranged so as to be curved toward the upper surface of the mounting column 19 from between the clamper 39 and the upper wing portion 13 of the handle portion 21. . Further, the pressing portion 55 is pulled up to the upper surface of the mounting column 19 and disposed on the upper surface of the mounting column 19. That is, the pair of connecting portions 53 </ b> A and 53 </ b> B are arranged in a stretched state due to elastic deformation, and are curved in a range from between the clamper 39 and the upper wing portion 13 to the upper surface of the mounting column 19. Therefore, an elastic restoring force is applied to the pressing portion 55 by stretching and bending of the connecting portions 53A and 53B.

  As a result, the pair of connecting portions 53A and 53B urge the puller portion 21 and the main body portion 51 in the direction of the arrow F in the figure with the base end side mounting shaft 41 of the clamper 39 as a fulcrum by the elastic restoring force generated by each. . In addition, since the clamper 39 is prevented from being detached from the main body 51 by the abutting portion 61a, the elastic restoring force of the pair of connecting portions 53A and 53B is reliably transmitted to the main body 51.

  In the handle portion 21, the clamper 39 is inserted into the slit hole 59 of the main body portion 51, and the proximal end of the handle 37 is received in the hole portion 61 while receiving the elastic restoring force of the connecting portions 53A and 53B. For this reason, the relative displacement between the puller 37 and the clamper 39 is suppressed by the main body 51 and is integrally displaced with the main body 51. Therefore, the pulling part 21 is urged together with the main body part 51 by the elastic restoring force of the connecting parts 53A and 53B in the direction of falling to the upper wing part 13 side indicated by the arrow F in the figure.

  In a state where the mounting tool 100 is mounted on the slider 11, the pulling portion 21 is always biased toward the upper wing portion 13, so that the pulling portion 21 can be prevented from hanging due to an external force. As a result, it is possible to prevent the generation of contact sound due to wobbling. Moreover, since the handle part 21 is laid down to the lower fastener element side which is not shown in figure, when the slider 11 is not operated, the handle part 21 does not become obstructive. When the operator slides the slider 11 and then releases the handle 37, the handle 21 is automatically tilted to the fastener element side by the elastic restoring force of the connecting portions 53A and 53B. For this reason, an operator can hold | maintain the handle part 21 in the state by which wobbling is suppressed, without being conscious of anything.

  The pressing force in the direction of arrow F in the figure that suppresses the swinging of the pulling portion 21 can be adjusted by the elasticity of the connecting portions 53A and 53B. For example, the elastic restoring force can be increased or decreased by changing the thickness or shape of the connecting portions 53A and 53B, or by using a material having a different elastic constant, so that the pressing force can be optimally adjusted.

  Further, the pressing portion 55 is formed with a larger thickness than the connecting portions 53A and 53B, and has increased rigidity. Therefore, the contact surface pressure with the upper surface of the mounting column 19 increases, and the contact surfaces of the pressing portion 55 and the mounting column 19 are difficult to shift. Further, as described above, the pressing portion 55 has a notch 56 formed in a part of the portion spanning the mounting column 19. The notch 56 engages the claw rod 33 that is loosely fitted in the groove 31 of the mounting column 19, thereby preventing the displacement in the width direction between the pressing portion 55 and the mounting column 19. Therefore, it is difficult for the mounting tool 100 to swing in the width direction, and the handle 37 can always be stably held at the center of the slider 11 in the width direction. Further, since the claw hook 33 is locked by the notch 56, the automatic stop mechanism by the locking claw 33a of the claw hook 33 when the handle part 21 is not operated is stably maintained.

  The size of the hole portion 57 is narrower than the maximum width orthogonal to the insertion direction of the handle portion 21. As a result, the pulling portion 21 once inserted is unlikely to be removed from the wearing tool 100, and the wearing tool 100 can be prevented from being accidentally dropped or lost.

  Furthermore, since the mounting tool 100 having this configuration has a simple structure, it can be easily mounted on the slider 11. In addition, even when the slider 11 is attached, the operator can operate the slider 37 by operating the handle 37. And since the mounting tool 100 is smaller and lighter than the slider 11, even if it is the mounting state to the slider 11, it does not disturb fastener operation and an operator does not feel uncomfortable.

  And the mounting tool 100 of this structure can be easily applied to various sliders by shape | molding according to the existing slider shape. Moreover, since the mounting tool 100 is integrally formed of a flexible elastic body as a whole, it is easy to manufacture. In addition, even if the slider on which the mounting tool 100 is mounted is slightly different from the prescribed slider shape, the mounting tool 100 itself can be elastically deformed to absorb the shape difference. Further, it is not necessary to change the fastener itself to a dedicated slider in order to reduce wobbling of the handle portion 21. From the above, according to the mounting tool 100 of this configuration, high versatility and economy can be obtained at the same time.

<Second configuration example>
Next, the 2nd structural example of the mounting tool for sliders of this invention is demonstrated.
FIG. 7 is an external perspective view showing the slider 71 and the mounting tool 200 attached to the slider 71.
The slider 71 of this configuration shown as an example has a handle part 73, a body 77, and a mounting column 79. The slider 71 of this configuration is a so-called free slider that does not include an automatic stop mechanism such as the aforementioned locking claw 33a that restricts the sliding motion of the slider 11. Not only this but the slider provided with the automatic stop mechanism may be sufficient like the slider of the 1st example of composition.

  The fuselage body 77 has a pair of side walls that protrude in directions close to each other at both edges in the width direction of the upper wing portion 81 and the lower wing portion 83 that are spaced apart from each other and arranged in parallel. 85.

  The mounting column 79 includes a guide column 80 (see FIG. 12) that connects the upper wing portion 81 and the lower wing portion 83 at the front end portion of the body 77. The attachment column 79 is provided so as to protrude upward from the upper wing portion 81, and the opening 87 is formed above the upper wing portion 81. An attachment shaft 89 of the handle part 73 is inserted into the opening 87, and the handle part 73 is rotatably attached to the attachment column 79.

  The pair of side walls 85 are in sliding contact with outer end portions of a fastener element (not shown). Thereby, the shoulder opening 27 formed by being separated in the width direction by the mounting column 79 on the front side of the slider 71 and the rear opening 29 formed on the rear side of the slider 71 serve as a passage through which the fastener element is inserted.

  The slider 71 is made of, for example, a die-cast product of a metal material such as a zinc alloy or an aluminum alloy, or an injection-molded product of a resin material.

Next, the mounting tool 200 mounted on the slider 71 having this configuration will be described. FIG. 8 is an external perspective view showing the wearing tool 200.
The mounting tool 200 includes a main body portion 91, a pair of connecting portions 93A and 93B whose one end portions are connected to the main body portion 91, and a pressing portion 95 connected to the other end portions of the pair of connecting portions 93A and 93B, Have Further, a hole 97 surrounded by a pair of connecting portions 93A and 93B is formed between the pressing portion 95 and the main body portion 91. The presser part 95 is formed to be thicker than the connecting parts 93A and 93B.

  The wearing tool 200 is a flexible elastic body formed of a thermoplastic resin such as silicone rubber or silicone resin, or a thermoplastic elastomer. The mounting tool 200 is integrally formed by injection molding.

9 is a cross-sectional view taken along the line C-C of the wearing tool 200 shown in FIG. 8, and FIG. 10 is a cross-sectional view taken along the line DD of the wearing tool 200 shown in FIG.
In the main body 91 of the mounting tool 200, a slit hole 99 parallel to the bottom surface 91a of the main body 91 is formed from the hole 97 side. A communication hole 101 communicating with the slit hole 99 is formed at the end of the main body 91 opposite to the hole 97 side. The slit hole 99 is formed so that the handle portion 73 can be inserted therethrough.

  FIG. 11 is an external perspective view of the slider 71 on which the mounting tool 200 is mounted. The wearing tool 200 is worn on the slider 71 by the operator along the locus indicated by the arrow P2 in FIG.

  Here, a specific mounting procedure of the mounting tool 200 will be described with reference to FIGS. First, the tip of the handle part 73 is inserted from the lower side to the upper side of the hole 97. Then, the tip of the handle part 73 that has come out of the hole part 97 is inserted into the slit hole 99 from the slit opening 99 a and abuts against the abutting part 103 formed in the slit hole 99 in the insertion direction of the handle part 73. Next, the pressing portion 95 is pulled up, and the pressing portion 95 is disposed on the upper surface of the mounting column 79. The mounting tool 200 is mounted on the slider 71 by the above procedure.

  Next, the operation and effect when the mounting tool 200 having the above configuration is mounted on the slider 71 will be described. 12 is a side view of the slider 71 on which the mounting tool 200 shown in FIG. 11 is mounted.

  In a state where the mounting tool 200 is mounted on the slider 71, the tip of the handle portion 73 is inserted into the slit hole 99 of the main body portion 91, and the tip of the handle portion 73 hits against the abutting portion 103 of the slit hole 59. Thereby, the handle part 73 is prevented from being detached from the main body part 91.

  A pair of connecting portions 93 </ b> B (the same applies to 93 </ b> A) extending from the main body portion 91 is disposed between the shoulder portion 104 on the attachment shaft 89 side of the handle portion 73 and the upper wing portion 81. Further, the pressing portion 95 is disposed by being pulled up on the upper surface of the mounting column 79. That is, the pair of connecting portions 93 </ b> A and 93 </ b> B are curved from the portion 105 immediately below the shoulder portion 104 of the pulling portion 73 and are stretched toward the upper surface of the mounting column 79 by elastic deformation. The pressing portion 95 is arranged on the upper surface of the mounting column 79 in a state where the elastic restoring force of the extended connecting portions 93A and 93B is applied.

  As a result, the pair of connecting portions 93A and 93B urge the main body 91 in the direction of arrow F in the figure with the elastic restoring force generated by the portion 105 just below the shoulder 104 of the pulling portion 73 as a fulcrum. Note that the pulling portion 73 is prevented from being detached from the main body portion 91 by the abutting portion 103, so that the elastic restoring force of the pair of connecting portions 93A and 93B is reliably transmitted to the main body portion 91.

  Since the handle portion 73 is inserted into the slit hole 99 of the main body portion 91, the handle portion 73 is displaced integrally with the main body portion 51. Therefore, the pulling portion 21 is urged together with the main body portion 51 by the elastic restoring force of the connecting portions 93 </ b> A and 93 </ b> B in the direction of falling toward the upper wing portion 81 side indicated by the arrow F in the drawing.

  Since the handle part 73 is always urged toward the upper wing part 81 side, it is possible to suppress the handle part 73 from receiving an external force and hanging. As a result, the same effect as the first configuration example described above can be obtained.

  Furthermore, according to this structure, since the handle part 73 is a simple structure, the mounting tool 200 can be attached to the slider 71 more easily. Moreover, since the front-end | tip of the handle part 73 is covered with the main-body part 91 of the mounting tool 200, the circumference | surroundings of the handle part 73 and the handle part 73 can be protected from a damage.

  The present invention is not limited to the above-described embodiments, and the configurations of the embodiments may be combined with each other, or may be modified or applied by those skilled in the art based on the description of the specification and well-known techniques. It is planned to be devised and is included in the scope of protection.

  In each of the above configuration examples, the wearing tool is integrally formed by injection molding or compression molding, but the manufacturing method is not limited thereto. For example, the attachment part may be formed in two colors by using a connecting part that requires a desired elastic force as a material having higher or lower rigidity than the main body part or the pressing part. In this case, a desired elastic force can be obtained without changing the shape of the wearing tool, and the design freedom can be improved. Moreover, it can be set as the structure excellent in durability by selectively using a flexible material and a waist material.

  Moreover, you may give uneven | corrugated shape to the surface of a connection part or a pressing part by embossing, embossing, etc. In this case, the slip resistance with respect to the slider of the connecting part or the pressing part can be adjusted, and the effect of preventing deviation can be enhanced.

  In addition, although the thickness of the holding | suppressing part was made thicker than a connection part, it may be the same thickness and may be made thinner than a connection part. In that case, the mounting tool can be further downsized.

11, 71 Slider 13, 81 Upper wing part 15, 83 Lower wing part 17, 77 Fuselage 19, 79 Mounting pillar 21, 73 Pulling part 37 Pulling 39 Clamper (intermediate connection body)
51, 91 Main body 53A, 53B, 93A, 93B Connecting part 55, 95 Pressing part 59, 99 Slit hole 100, 200 Slider fitting 103 Abutting part 104 Shoulder part

Claims (8)

A fuselage (17) having an upper wing (13) and a lower wing (15) arranged in parallel and spaced apart from each other, a mounting column (19) projecting upward from the upper wing (13), A slider mounting tool (100), wherein a slider mounting tool (100) is mounted on a slider (11) for a slide fastener having a handle (21) rotatably mounted on the mounting column (19). A slider (11) with
The slider mounting tool (100) includes a main body part (51) in which a slit hole (59) is formed, and a pair of connecting parts (53A, 53B) each having one end connected to the main body part (51). A pressing portion (55) connected to the other end of the pair of coupling portions (53A, 53B),
In the main body (51), the handle (21) is inserted into the slit hole (59),
The pair of connecting portions (53A, 53B) are arranged to be curved toward the upper surface of the mounting column (19) from between the handle portion (21) and the upper wing portion (13),
The pressing portion (55) is disposed on the upper surface of the mounting column (19),
The pulling part (21) includes a slider mounting tool that is biased in a direction to fall toward the upper wing part (13) by the elastic restoring force of the connecting part (53A, 53B). slider. The pulling portion (21) is pivotally attached to the attachment column (19) so as to be pivotable, and is pivoted to the opposite side of the intermediate connector (39) from the attachment column (19). A handle (37) attached freely,
The main body (51) is mounted with the handle (37) coming out of the slit hole (59) and the intermediate connector (39) being accommodated in the slit hole (59). A slider comprising the slider mounting tool according to claim 1.   3. The slider mounting according to claim 1, wherein the pressing portion (55) has a notch (56) in a part of the mounting pillar (19) that spans the upper surface. 4. A slider with tools. A fuselage body (77) having an upper wing portion (81) and a lower wing portion (83) arranged in parallel and spaced apart from each other, a mounting column (79) projecting upward from the upper wing portion (81), and A slider mounting tool (200), wherein a slider mounting tool (200) is mounted on a slider (71) for a slide fastener having a handle (73) rotatably mounted on the mounting column (79). A slider with
The slider mounting tool (200) includes a main body portion (91) in which a slit hole (99) is formed, and a pair of connecting portions (93A, 93B) each having one end connected to the main body portion (91). A pressing portion (95) connected to the other end of the pair of coupling portions (93A, 93B),
In the main body (91), the handle (73) is inserted into the slit hole (99).
The pair of connecting portions (93A, 93B) are disposed between a shoulder portion on the attachment column (79) side of the handle portion (73) and the upper wing portion (81),
The pressing portion (95) is disposed on the upper surface of the mounting column (79),
A slider provided with a mounting tool for a slider, wherein the pulling portion (73) is biased by elastic deformation in a direction in which the pulling portion (73) lies down toward the upper wing portion (81).   The said holding | suppressing part (55, 95) was formed in the larger thickness than the said connection part (53A, 53B, 93A, 93B), The Claim 1 thru | or 4 characterized by the above-mentioned. Slider with a slider mounting tool.   The main body portion (51, 91) is an abutting portion that prevents the handle portion (21, 73) from coming off in the insertion direction of the handle portion (21, 73) inside the slit hole (59, 99). (61a, 103) The slider provided with the mounting tool for sliders as described in any one of Claim 1 thru | or 5 characterized by the above-mentioned.   The said main-body part (51,91), the said connection part (53A, 53B, 93A, 93B), and the said holding | suppressing part (55, 95) were integrally molded, The any one of Claim 1 thru | or 6 characterized by the above-mentioned. A slider comprising the slider mounting tool according to claim 1.   The slider provided with the mounting tool for a slider according to any one of claims 1 to 7, wherein the slider is formed of silicon rubber or silicon resin.

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