TW201639491A - Slider having mounting device for the same - Google Patents

Abstract

The present invention provides a slider equipped with a mounting device for the slider, which can be easily mounted on a pull-tab without being made into a complicated structure and capable of reducing the wobbling of the pull-tab under operation. The slider 11 comprises a main body 17, a mounting post 19, a pull-tab portion 21, and a mounting device 100 for mounting the slider. The mounting device for mounting a slider includes a body portion 51 formed with a slit hole 59; a pair of connecting portions 53A and 53B, which have a portion of one end been respectively connected to the body portion 51; and a pressing portion 55, which is connected to the other ends of the connecting portions 53A, 53B. The body portion 51 is inserted through the slit hole 59 into the pull-tab portion 21, and the pair of connecting portions 53A and 53B are arranged so as to be bent from the space between the pull-tab portion 21 and the upper wing portion 13 to the upper surface of the mounting post 19, the pressing portion 55 is arranged on the upper surface of the mounting post 19. The pull-tab portion 21 is enabled in a direction in which the tab portion 21 is tilted toward the upper wing portion 13.

Description

Sliding member with mounting device for sliding parts

The present invention relates to a slider having a mounting device for a slider.

The zipper attached to the clothes or the bag is a slider connecting tab that opens and closes the fastening member. The pull tab will sway and produce a contact sound when wearing a garment for exercise or holding a bag. For example, when wearing a sportswear for jogging, the pull tab oscillates rhythmically and produces a harsh contact sound. Since the contact sound is harsh to the person who jogs, the countermeasure against the noise of the contact sound is adopted (for example, refer to Patent Documents 1 and 2).

In Patent Document 1, as a countermeasure against noise, a ring-shaped pull piece is attached to one of the sliders. The pull tab is a fabric that presses a fastener or a garment with a free end that is opposite to the mounting side of the slider. Thereby, the tab is prevented from popping up, thereby suppressing the generation of contact sound. Further, in Patent Document 2, as a countermeasure for noise reduction, a tab attachment having flexibility is attached by a mounting hole or a grip hole formed in the tab. Thereby, the shaking of the pull tab is suppressed.

[Previous Technical Literature] [Patent Literature]

[Patent Document 1] US Patent No. 5101538

[Patent Document 2] Japanese Patent Laid-Open Publication No. 2004-313517

However, in the configuration of Patent Document 1, since the pull tab is a dedicated design, it lacks versatility and is costly. In the constitution of Patent Document 2, the shape of the pull tab aid is complex Miscellaneous, the work of mounting on the pull tab becomes complicated. Further, in the state in which the pull tab auxiliary device is attached to the pull tab, the pull tab tends to rise from the slider, and the tab may become obstructed when the pull tab is not operated.

The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a mounting device for a slider which can be easily attached to a pull tab without being complicated, and can reduce the wobble of the pull tab when the pull tab is not operated. Sliding parts.

The above object of the present invention is achieved by the following constitution.

(1) A slider provided with a mounting device for a slider, which is obtained by attaching a slider for a sliding member for a slide fastener, the slider for a slide fastener having a main body which is spaced apart from each other The upper wing portion and the lower wing portion are disposed in parallel; the mounting post protrudes upward from the upper wing portion; and the pull tab portion is rotatably mounted to the mounting post; and the slider mounting device has: a main body portion having a slit hole formed therein; a pair of connecting portions each connected to the main body portion; and a pressing portion connected to the other end portion of the pair of connecting portions; and the main body portion The slit portion is inserted into the tab portion, and the pair of connecting portions are arranged to be curved from an upper surface of the mounting post between the tab portion and the upper blade portion, and the pressing portion is disposed on the mounting portion. On the upper surface of the column, the pull-tab portion is energized in a direction toward the upper wing portion by the elastic restoring force of the connecting portion.

(2) The slider provided with the mounting device for a slider according to (1), wherein the tab portion has an intermediate connecting body that is rotatably attached to the mounting post; and a pull tab that is rotated The intermediate connecting body is attached to the opposite side of the mounting post, and the main body is attached to the slit hole by the pull tab, and the intermediate connecting body is accommodated in the slit hole.

(3) The slider according to (1) or (2), wherein the pressing portion has a notch in a portion of the portion of the upper surface of the mounting post.

(4) A slider provided with a mounting device for a slider, characterized in that it is attached to a slider for a slide fastener mounting slider, the slider for a slide fastener having a main body which is spaced apart from each other The upper wing portion and the lower wing portion are disposed in parallel; the mounting post protrudes upward from the upper wing portion; and the pull tab portion is rotatably mounted to the mounting post; and the slider mounting device has: a main body portion having a slit hole formed therein; a pair of connecting portions each connected to the main body portion; and a pressing portion connected to the other end portion of the pair of connecting portions; and the main body portion The slit portion is inserted into the pull-tab portion, and the pair of connecting portions are disposed between the shoulder portion of the tab portion on the mounting post side and the upper wing portion, and the pressing portion is disposed on the mounting post In the upper surface, the tab portion is energized in a direction toward the upper wing portion by elastic deformation.

(5) The slider provided with the mounting device for a slider according to any one of (1) to (4), wherein the pressing portion is formed to have a thicker thickness than the connecting portion.

(6) The slider provided with the slider for a slider according to any one of (1) to (5), wherein the main body portion is inserted in front of the insertion direction of the tab portion inside the slit hole There is a contact portion that prevents the above-mentioned tab portion from being detached.

(7) The slider provided with the mounting device for a slider according to any one of (1) to (6), wherein the main body portion, the connecting portion, and the pressing portion are integrally formed.

(8) The slider provided with the mounting device for a slider according to any one of (1) to (7), which is characterized in that it is formed of ruthenium rubber or enamel resin.

According to the sliding member for a sliding member mounting device according to the present invention, the sliding member can be omitted Set it to a simple structure and simply attach it to the pull tab. Moreover, it is possible to reduce the wobble of the tab when the tab is not operated, so that the tab does not become an obstacle.

11‧‧‧Sliding parts

13‧‧‧Upper wing

15‧‧‧ Lower wing

17‧‧‧ Subject

19‧‧‧Installation column

21‧‧‧ Pulling Department

23‧‧‧ side wall

25‧‧‧Guide column

27‧‧‧Import

29‧‧‧Matching

31‧‧‧ Groove

33‧‧‧ claws

33a‧‧‧Card claws

35‧‧‧ mandrel

37‧‧‧ pull tab

39‧‧‧Positioning parts (intermediate connector)

41‧‧‧Based side mounting shaft

43‧‧‧ front side mounting shaft

45‧‧‧through holes

51‧‧‧ Body Department

51a‧‧‧ bottom

53A, 53B‧‧ Links

55‧‧‧Pushing Department

56‧‧‧ gap

57‧‧‧ Hole Department

58‧‧‧ side

59‧‧‧Slit hole

59a‧‧‧ slit opening

59b‧‧‧ slit opening

61‧‧‧ points

61a‧‧‧Touching

71‧‧‧Sliding parts

73‧‧‧ Pulling Department

77‧‧‧ Subject

79‧‧‧Installation column

80‧‧‧Guide column

81‧‧‧Upper wing

83‧‧‧ Lower wing

85‧‧‧ side wall

87‧‧‧ openings

89‧‧‧Installation shaft

91‧‧‧ Body Department

91a‧‧‧ bottom

93A, 93B‧‧‧ Linkage Department

95‧‧‧Pushing Department

97‧‧‧ Hole Department

99‧‧‧Slit hole

99a‧‧ slit opening

100‧‧‧Sliding fixtures

101‧‧‧Connected holes

103‧‧‧Touching

104‧‧‧ shoulder

105‧‧‧ directly below the shoulder

200‧‧‧Sliding fixtures

F‧‧‧ arrow

P1‧‧‧ arrow

P2‧‧‧ arrow

X‧‧‧ direction

Y‧‧‧ direction

Z‧‧‧ direction

Fig. 1 is a perspective view showing an embodiment of the present invention, and is a perspective view showing a sliding member for a slide fastener and a mounting device for a slider attached to the slider.

Fig. 2(A) is an external perspective view of the front side of the fixture, and (B) is an external perspective view of the back side of the fixture.

Fig. 3 is a cross-sectional view taken along line A-A of the mounting tool shown in Fig. 2(A).

Figure 4 is a cross-sectional view of the B-B line of the mounting tool shown in Figure 3.

Fig. 5 is a perspective view showing the appearance of a slider to which a mounting tool is attached.

Figure 6 is a side elevational view of the slider with the mounting tool shown in Figure 5.

Fig. 7 is a perspective view showing the appearance of a slider and an attachment attached to the slider.

Fig. 8 is a perspective view showing the appearance of the fixture.

Figure 9 is a cross-sectional view taken along line C-C of the fixture shown in Figure 8.

Figure 10 is a cross-sectional view of the D-D line of the mounting tool shown in Figure 9.

Fig. 11 is a perspective view showing the appearance of a slider in a state in which the mounting member is attached to the slider.

Figure 12 is a side elevational view of the slider with the mounting tool shown in Figure 11.

Hereinafter, an embodiment of the slider provided with the slider for a slider according to the present invention will be described in detail based on the drawings.

<First Configuration Example>

1 is a view for explaining an embodiment of the present invention, and is a slider for a slide fastener (hereinafter, simply referred to as a slider) 11 and a mounting device for a slider attached to the slider 11 (hereinafter, simply referred to as A perspective view of the appearance of the mounting device 100. The slider 11 of the present configuration, which is shown as an example, is a stealth slide fastener for hiding a tee (not shown).

The slider 11 has a main body 17 having a wing portion 13 spaced apart from each other and arranged in parallel a lower wing portion 15; a mounting post 19 that protrudes upward from the upper wing portion 13; and a tab portion 21 that is rotatably attached to the mounting post 19.

In the present specification, regarding the slider 11, the direction in which the slider 11 moves along the element is referred to as the sliding direction (X direction), and will be positive in the plane parallel to the upper wing portion 13 and the lower wing portion 15 The direction of intersection is referred to as the width direction (Y direction), and the direction of thickness orthogonal to the sliding direction and the width direction is referred to as the vertical direction (Z direction). Further, the side where the sprocket of the slider 11 is separated is referred to as the front side, the side where the sprocket is meshed is referred to as the rear side, and the side where the mounting post 19 protrudes from the main body 17 of the slider 11 is referred to as the upper side (positive side), and The opposite side is called the lower side (back side). Further, in the pull-tab portion 21, the thickness direction of the tab portion 21 in the state in which the main body 17 of the slider 11 is tilted is referred to as the vertical direction (Z direction).

The main body 17 of the slider 11 has a pair of side walls 23 which are erected on both sides in the width direction of the lower wing portion 15, and a mounting post 19 including a central portion in the width direction which is erected on the front side of the lower wing portion 15 The guide post 25 is constructed. At the upper ends of the pair of side walls 23, one pair of upper wing portions 13 are formed to be bent inward in the width direction. The region of the mounting post 19 that is lower than the upper wing portion 13 through which the sprocket passes is the guide post 25.

The main body 17 is attached to the front side, and has an introduction port 27 between the pair of side walls 23 and the guide post 25 opposed to each side wall 23. Further, the main body 17 is attached to the rear side, and has a meshing opening 29 between the inner side faces of the pair of side walls 23. The introduction port 27 and the engagement port 29 serve as passages through which the fastener elements (not shown) are inserted.

The mounting post 19 forms a groove 31 along the sliding direction at its upper portion. In the recess 31, a hook-shaped claw 33 having a locking claw 33a at one end is movably fitted. A shaft hole is bored in the base of the claw cymbal 33, and a spindle 35 that penetrates the mounting post 19 in the width direction is inserted into the shaft hole. Thereby, the mounting post 19 is configured to support the pawl 33 in a rotatable manner about the spindle 35.

A positioning member 39 as an intermediate connecting body that connects the pull tabs 37 is attached to the locking claws 33a of the claws 33. The positioning member 39 has a proximal end side mounting shaft 41 coupled to the pawl 33, and a distal end side mounting shaft 43 coupled to the pull tab 37. The pull tab 37 is a long strip of gripper and The base end portion forms a through hole 45 through which the front end side mounting shaft 43 of the positioning member 39 is inserted.

The slider 11 is provided with an automatic stop mechanism. In other words, the claws 33 are formed by pressing portions (not shown) on the base portion opposite to the locking claws 33a via the mandrel 35. The pressing portion receives an elastic repulsive force from a spring (not shown) provided in the mounting post 19, and is energized in a direction away from the lower wing portion 15 of the main body 17.

Then, the locking claws 33a of the claws 33 are pressed toward the lower blade portion 15 with the mandrel 35 as a fulcrum, and the front end of the locking claw 33a is locked to a fastener element (not shown). In this state, the movement of the sliding direction of the slider 11 is blocked. Further, when the pull tab 37 is pulled by the operator, the pawl 33 is pulled up via the positioning member 39, and the locking of the front end of the locking claw 33a and the fastener element (not shown) is released. In this state, the slider 11 is freely movable in the sliding direction.

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

Next, the mounting tool 100 attached to the slider 11 of the above configuration will be described. 2(A) is an external perspective view of the front side of the mounting tool 100, and FIG. 2(B) is an external perspective view of the back side of the mounting tool 100. As shown in FIGS. 2(A) and 2(B), the mounting tool 100 has a main body portion 51, a pair of connecting portions 53A and 53B, and one end portion is connected to the main body portion 51, respectively, and a pressing portion 55 that is connected. The other end of the pair of connecting portions 53A, 53B. Further, a hole portion 57 surrounded by the pair of coupling portions 53A and 53B is formed between the pressing portion 55 and the main body portion 51.

3 is a cross-sectional view taken along line A-A of the mounting tool 100 shown in FIG. 2(A), and FIG. 4 is a cross-sectional view taken along line B-B of the mounting tool 100 shown in FIG.

The main body portion 51 forms a slit hole 59 which is parallel to the bottom surface 51a of the main body portion 51 from the side surface 58 on the side of the hole portion 57 toward the inside of the main body portion 51. Further, in the main body portion 51, the hole portion 61 is formed to be recessed from the bottom surface 51a.

One slit opening 59a of the slit hole 59 of the main body portion 51 is formed on the side surface 58, and the other slit opening 59b is formed in the hole portion 61. That is, the slit hole 59 is formed to penetrate the body portion 51 from the slit opening 59a of the side surface 58 to the hole portion 61.

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

The mounting tool 100 having the above configuration is a flexible elastic body integrally molded by injection molding or compression molding, and includes, for example, a resin such as polyurethane, enamel, polyester elastomer, polyether elastomer, or synthetic rubber. Or natural rubber, etc. As the material of the mounting tool 100, ruthenium rubber or enamel resin is particularly preferably used.

The slit hole 59 is formed to allow the tab portion 21 to be inserted. In the case of the present configuration, the size of the slit hole 59 is such that the positioning member 39 can be accommodated in the upper and lower directions and the width direction of the slit hole 59 by the elastic deformation of the main body portion 51. Further, the hole portion 61 has a size such that the front end of the tab 37 inserted through the slit hole 59 is detached by the elastic deformation of the main body portion 51. The hole portions 57, the slit holes 59, and the hole portions 61 are formed by a slider core or the like during molding of the mold.

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

Here, a specific mounting sequence of the mounting tool 100 will be described with reference to FIGS. 3 and 5. First, the front end of the pull tab 37 is inserted from the lower side of the hole portion 57 toward the upper side. Then, the front end of the tab 37 which is detached from the hole portion 57 is inserted into the slit hole 59 from the slit opening 59a so as to protrude from the slit opening 59b toward the hole portion 61. Next, the front end of the extended tab 37 is pulled out toward the lower side of the hole portion 61. Thereby, the tab 37 passes through the slit hole 59, and the positioning member 39 is kept in the state of being inserted into the slit hole 59. Then, the pressing portion 55 is pulled up, and the pressing portion 55 is placed on the upper surface of the mounting post 19. At this time, the claw jaws 33 are locked to the notches 56 formed on the side of the hole portion 57 at the center portion in the width direction of the pressing portion 55. According to the above sequence, the mounting tool 100 is attached to the slider 11.

Next, an operation and effect when the mounting tool 100 having the above configuration is attached to the slider 11 will be described. Figure 6 is a side elevational view of the slider 11 with the mounting tool 100 shown in Figure 5.

In a state in which the mounting tool 100 is attached to the slider 11, the positioning member 39 is inserted into the slit hole 59 of the main body portion 51, and the base end portion of the tab 37 is disposed in the hole portion 61. Also, the pull tab 37 The front end is in a state of being separated from the slit hole 59 and the hole portion 61. The locating member 39 is prevented from being detached from the body portion 51 by partially touching one of the base ends of the pull tab 37 against the contact portion 61a formed at the cavity portion 61 of the body portion 51.

One of the pair of connecting portions 53B (the same as 53A) extending from the main body portion 51 is disposed between the positioning member 39 and the upper wing portion 13 of the tab portion 21 so as to be curved toward the upper surface of the mounting post 19. Further, the pressing portion 55 is pulled up to the upper surface of the mounting post 19 and disposed on the upper surface of the mounting post 19. In other words, the pair of coupling portions 53A and 53B are disposed in a state of being stretched by elastic deformation, and are bent in a range from the position between the positioning member 39 and the upper wing portion 13 to the upper surface of the mounting post 19. Therefore, the pressing portion 55 is elastically restored by the stretching and bending of the connecting portions 53A and 53B.

Thereby, the pair of connecting portions 53A, 53B are responsive to the elastic restoring force generated by each of them, with the base end side mounting shaft 41 of the positioning member 39 as a fulcrum, and the tab portion 21 and the body portion 51 are directed to the arrow F in the figure. Directional empowerment. Further, since the positioning member 39 is prevented from being detached from the main body portion 51 by the contact portion 61a, the elastic restoring force of the pair of coupling portions 53A and 53B is surely transmitted to the main body portion 51.

The tab portion 21 is inserted into the slit hole 59 of the main body portion 51, and the base end of the tab 37 is received in the pocket portion 61 while being elastically restored by the connecting portions 53A and 53B. Therefore, the pull tab 37 and the positioning member 39 suppress the relative displacement of the both by the main body portion 51, and are displaced integrally with the main body portion 51. Therefore, the tab portion 21 is energized with the main body portion 51 by the elastic restoring force of the connecting portions 53A and 53B in the direction in which the upward wing portion 13 side is tilted as indicated by an arrow F in the figure.

In the state in which the mounting tool 100 is attached to the slider 11, the tab portion 21 is always energized toward the upper wing portion 13, whereby the tab portion 21 can be prevented from being shaken by an external force. As a result, contact sound due to shaking can be prevented. Further, since the handle portion 21 is tilted on the sprocket side (not shown) on the lower side, the handle portion 21 does not interfere with the operation of the slider 11. Further, after the operator slides the slider 11, the tab portion 21 is opened by the tab 37 when the handle is released. The elastic restoring forces of 53A and 53B are automatically tilted toward the sprocket side. Therefore, the operator can maintain the slider portion 21 in a state where the shake is suppressed without performing the operation consciously.

The pressing force in the direction of the arrow F in the diagram of suppressing the shaking of the tab portion 21 can be adjusted by the elasticity of the connecting portions 53A, 53B. For example, the pressing force can be adjusted to be optimal by changing the thickness or shape of the connecting portions 53A and 53B or by using a material having a different elastic constant to increase or decrease the elastic restoring force.

Further, the pressing portion 55 is formed to have a thicker thickness than the connecting portions 53A and 53B, thereby improving rigidity. Therefore, the contact surface pressure with the upper surface of the mounting post 19 is increased, and the abutting faces of the pressing portion 55 and the mounting post 19 are not easily offset from each other. Further, the pressing portion 55 is formed with a notch 56 in a portion of the portion that is mounted on the mounting post 19 as described above. The notch 56 is locked by the claws 33 that are movably fitted into the recess 31 of the mounting post 19, thereby preventing the position of the pressing portion 55 from being displaced from the mounting post 19 in the width direction. Thereby, the swing of the attachment 100 in the width direction is less likely to occur, and the tab 37 can be stably held at the center in the width direction of the slider 11 at all times. Further, the claws 33 are locked by the notches 56, whereby the automatic stop mechanism constituted by the locking claws 33a of the claws 33 when the tab portion 21 is not operated can be stably held.

Further, the size of the hole portion 57 is narrower than the maximum width of the tab portion 21 orthogonal to the insertion direction. Thereby, the temporarily inserted tab portion 21 is less likely to be detached from the mounting tool 100, and the accidental detachment or loss of the mounting tool 100 can be prevented.

Further, since the structure of the mounting tool 100 of the present configuration is simple, it is easy to mount the slider 11. Further, even when the slider 11 is held, the slider slider 37 can be operated by the operator to perform the normal sliding operation of the slider 11. Moreover, since the mounting tool 100 is smaller and lighter than the slider 11, even if it is attached to the slider 11, the fastener operation is not hindered, and the operator does not feel uncomfortable.

Further, the mounting tool 100 of the present configuration is formed in accordance with the shape of the existing slider, whereby it can be easily applied to various sliders. Moreover, since the entire mounting tool 100 is integrally molded from a soft elastic body, it is easy to manufacture. Moreover, even if the slider for mounting the mounting tool 100 is There are some differences in the shape of the specified slider, and the shape difference can be absorbed by the elastic deformation of the mounting tool 100 itself. Further, it is not necessary to change the fastening member itself into a dedicated slider in order to reduce the rattling of the tab portion 21. As described above, according to the mounting tool 100 of the present configuration, high versatility and economy can be obtained at the same time.

<Second configuration example>

Next, a second configuration example of the slider for a slider according to the present invention will be described.

FIG. 7 is a perspective view showing the appearance of the slider 71 and the mounting tool 200 attached to the slider 71.

The slider 71 of the present configuration shown as an example has a handle portion 73, a main body 77, and a mounting post 79. The slider 71 of the present configuration does not include a so-called free slider which is an automatic stop mechanism such as the above-described locking claw 33a for restricting the sliding operation of the slider 11. The present invention is not limited thereto, and may be a slider including an automatic stop mechanism similarly to the slider of the first configuration example.

The main body 77 has an upper wing portion 81 and a lower wing portion 83 which are spaced apart from each other, and a pair of side walls 85 projecting in the direction in which the upper edge portion 81 and the lower wing portion 83 extend in the direction in which they are adjacent to each other.

The mounting post 79 has a guide post 80 (see FIG. 12) that connects the upper wing portion 81 and the lower wing portion 83 to the front end portion of the main body 77. The mounting post 79 is provided to protrude upward from the upper wing portion 81, and the opening portion 87 is formed above the upper wing portion 81. The attachment shaft 89 of the tab portion 73 is inserted into the opening portion 87, and the tab portion 73 is rotatably attached to the mounting post 79.

The pair of side walls 85 are in sliding contact with the outer end portions of the sprocket not shown. Thereby, the introduction port 27 formed to be separated in the width direction and the engagement port 29 formed on the rear side of the slider 71 by the mounting post 79 on the front side of the slider 71 serve as passages through which the fastener teeth are inserted.

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

Next, the mounting tool 200 attached to the slider 71 of the present configuration will be described. FIG. 8 is a perspective view showing the appearance of the mounting tool 200.

The mounting tool 200 has a main body portion 91, a pair of connecting portions 93A and 93B, and one end portion thereof is connected to the main body portion 91, and a pressing portion 95 connected to the other end portion of the pair of connecting portions 93A and 93B. Further, a hole portion 97 surrounded by the pair of coupling portions 93A and 93B is formed between the pressing portion 95 and the main body portion 91. The pressing portion 95 is formed to have a thicker thickness than the connecting portions 93A and 93B.

The mounting tool 200 is a soft elastic body formed of a thermoplastic resin such as ruthenium rubber or enamel resin, or a thermoplastic elastomer. The mounting tool 200 is integrally formed by injection molding.

9 is a cross-sectional view taken along line C-C of the mounting tool 200 shown in FIG. 8, and FIG. 10 is a cross-sectional view of the D-D line of the mounting tool 200 shown in FIG.

The main body portion 91 of the mounting tool 200 is formed with a slit hole 99 parallel to the bottom surface 91a of the main body portion 91 from the side of the hole portion 97. Further, a communication hole 101 communicating with the slit hole 99 is formed at an end portion of the main body portion 91 opposite to the hole portion 97 side. The slit hole 99 is formed so that the tab portion 73 can be inserted.

Fig. 11 is a perspective view showing the appearance of the slider 71 to which the mounting tool 200 is attached. The mounting tool 200 is attached to the slider 71 by an operator along a locus shown by an arrow P2 of FIG.

Here, a specific mounting sequence of the mounting tool 200 will be described with reference to FIGS. 9 and 11. First, the front end of the tab portion 73 is inserted from the lower side of the hole portion 97 toward the upper side. Then, the front end of the tab portion 73 which is detached from the hole portion 97 is inserted into the slit hole 99 from the slit opening 99a, and is brought into contact with the inside of the slit hole 99 which is formed in front of the insertion direction of the tab portion 73. Contact 103. Then, the pressing portion 95 is lifted, and the pressing portion 95 is placed on the upper surface of the mounting post 79. According to the above sequence, the mounting tool 200 is attached to the slider 71.

Next, an operation and effect when the mounting tool 200 having the above configuration is attached to the slider 71 will be described. Figure 12 is a side elevational view of the slider 71 with the mounting tool 200 shown in Figure 11.

In the state in which the mounting tool 200 is mounted on the slider 71, the slit hole 99 in the body portion 91 The front end of the tab portion 73 is inserted, and the front end of the tab portion 73 touches the contact portion 103 of the slit hole 59. Thereby, the tab portion 73 is prevented from being detached from the body portion 91.

One of the pair of connecting portions 93B (the same as 93A) extending from the main body portion 91 is disposed between the shoulder portion 104 on the side of the mounting shaft 89 of the tab portion 73 and the upper wing portion 81. Further, the pressing portion 95 is pulled up to the upper surface of the mounting post 79 and disposed. That is, the pair of coupling portions 93A, 93B are bent from the portion 105 directly below the shoulder portion 104 of the tab portion 73, and are elastically deformed toward the upper surface of the mounting post 79. Further, the pressing portion 95 is disposed on the upper surface of the mounting post 79 in a state in which the elastic restoring force of the joined and bent connecting portions 93A and 93B is applied.

Thereby, the pair of connecting portions 93A and 93B are responsive to the elastic restoring force generated by each of them, and the main portion 91 is oriented in the direction of the arrow F in the figure with the portion 105 directly below the shoulder portion 104 of the tab portion 73 as a fulcrum. can. Further, since the tab portion 73 is prevented from being detached from the main body portion 91 by the contact portion 103, the elastic restoring force of the pair of coupling portions 93A and 93B is surely transmitted to the main body portion 91.

The tab portion 73 is inserted into the slit hole 99 of the body portion 91, so that the tab portion 73 is integrally displaced with the body portion 51. Therefore, the handle portion 21 is energized with the main body portion 51 in the direction in which the upper wing portion 81 is tilted toward the side indicated by the arrow F in the figure by the elastic restoring force of the joint portions 93A and 93B.

The tab portion 73 is always energized toward the upper wing portion 81 side, whereby the tab portion 73 can be prevented from being shaken by an external force. As a result, the same operational effects as those of the first configuration example described above can be obtained.

Further, according to this configuration, since the handle portion 73 has a simple configuration, the attachment 200 can be attached to the slider 71 more easily. Further, since the front end of the tab portion 73 is covered by the main body portion 91 of the attachment 200, the periphery of the tab portion 73 or the tab portion 73 can be protected from damage.

The present invention is not limited to the above-described embodiments, and the present invention is also intended to modify and apply the respective components of the embodiments in combination with the description of the specification and the well-known techniques, and the contents are included in the claimed invention. range.

In each of the above-described configuration examples, the mounting tool is integrally molded by injection molding or compression molding, but the manufacturing method is not limited thereto. For example, a joint portion requiring a desired elastic force may be a material having a rigidity higher or lower than that of the body portion or the pressing portion, and a two-color forming fixture. In this case, the desired elastic force can be obtained without the shape change of the mounting tool, thereby improving the degree of design freedom. Further, by selectively using a soft material and a material having toughness, it is possible to obtain a structure excellent in durability.

Further, the surface of the connecting portion or the pressing portion may be provided with an uneven shape by embossing or wrinkle processing. In this case, the sliding resistance of the joint portion or the pressing portion with respect to the slider can be adjusted, and the effect of preventing the offset can be improved.

Further, the thickness of the pressing portion is set to be thicker than the connecting portion, but may be the same thickness or may be thinner than the connecting portion. In this case, further miniaturization of the mounting tool can be achieved.

11‧‧‧Sliding parts

13‧‧‧Upper wing

15‧‧‧ Lower wing

17‧‧‧ Subject

19‧‧‧Installation column

21‧‧‧ Pulling Department

23‧‧‧ side wall

31‧‧‧ Groove

33‧‧‧ claws

33a‧‧‧Card claws

35‧‧‧ mandrel

37‧‧‧ pull tab

51‧‧‧ Body Department

53A, 53B‧‧ Links

55‧‧‧Pushing Department

56‧‧‧ gap

100‧‧‧Sliding fixtures

X‧‧‧ direction

Y‧‧‧ direction

Z‧‧‧ direction

Claims (8)

A sliding member provided with a mounting device for a sliding member, which is characterized in that a sliding member (100) is attached to a sliding member for sliding fasteners (11), and a sliding member for a mounting member for a sliding member (100) is obtained ( 11) The slide fastener (11) has a main body (17) having a wing portion (13) and a lower wing portion (15) spaced apart from each other and arranged in parallel; and a mounting post (19) which is higher than the above The upper wing portion (13) protrudes upward; and the pull tab portion (21) is rotatably attached to the mounting post (19); and the slider mounting device (100) has a body portion (51) a slit hole (59) is formed, and a pair of connecting portions (53A, 53B) are respectively connected to the body portion (51); and a pressing portion (55) connected to the pair The other end portion of the connecting portion (53A, 53B); and the main body portion (51) is inserted into the pull-tab portion (21) by the slit hole (59), and the pair of connecting portions (53A, 53B) are The pull-tab portion (21) and the upper wing portion (13) are arranged to be curved toward the upper surface of the mounting post (19), and the pressing portion (55) is disposed on the upper surface of the mounting post (19). The pull tab portion (21) is connected by the connecting portion (53A) 53B) of the elastic restoring force is energized in a direction toward the upper side of the pouring flap portion (13). A slider according to claim 1, wherein the tab portion (21) has an intermediate connecting body (39) that is rotatably mounted to the mounting post (19); and a pull tab ( 37), which is rotatably attached to the intermediate connecting body (39) opposite to the mounting post (19); and the main body portion (51) is separated from the slit hole by the pull tab (37) 59), and the intermediate connector (39) is mounted in the state of the slit hole (59). The sliding member for a slider for a sliding member according to claim 1 or 2, wherein the pressing portion (55) is missing from a portion of the upper surface of the mounting post (19) Mouth (56). A slider provided with a mounting device for a slider, characterized in that the slider for a slider (71) is attached to a slide fastener (71), and the slider for the slider mounting device (200) is provided. The slide fastener (71) has a main body (77) having a wing portion (81) and a lower wing portion (83) which are spaced apart from each other and arranged in parallel; and a mounting post (79) which is higher than the upper wing portion (81) projecting upward; and a pull-tab portion (73) rotatably attached to the mounting post (79); and the slider mounting device (200) has a body portion (91) formed a slit hole (99); a pair of connecting portions (93A, 93B) each connected to the body portion (91); and a pressing portion (95) connected to the pair of connecting portions ( 93A, 93B); the main body portion (91) is inserted into the slit portion (73) through the slit hole (99), and the pair of connecting portions (93A, 93B) are disposed on the pull portion Between the shoulder portion on the mounting post (79) side of the sheet portion (73) and the upper wing portion (81), the pressing portion (95) is disposed on the upper surface of the mounting post (79), and the pull tab The portion (73) is directed toward the upper wing by elastic deformation The part (81) is biased in the direction of the side. The slider according to claim 1 or 4, wherein the pressing portion (55, 95) is formed thicker than the connecting portion (53A, 53B, 93A, 93B). A slider according to claim 1 or 4, wherein said body portion (51, 91) is attached to said tab portion (21, 73) inside said slit hole (59, 99). A contact portion (61a, 103) for preventing the above-described tab portion (21, 73) from coming off is provided in front of the insertion direction. A sliding member for a slider for a slider according to claim 1 or 4, wherein said main body portion (51, 91), said connecting portion (53A, 53B, 93A, 93B) and said pressing portion (55, 95) is integrally formed. A sliding member for a slider for a sliding member according to claim 1 or 4, which is formed of ruthenium rubber or enamel resin.