Slider and method for repairing slide fastener

Abstract

A slider body of a slider includes a slider main member and a slider sub-member. The slider main member includes at least a portion of a first blade and at least a portion of a second blade which are connected to each other through a guide column. The slider sub-member includes a pair of first flange sections and is assembled with and fixed to the slider main member. The slider can easily be attached to a fastener chain. Since the slider stably has a predetermined distance between the first and second blades, it is possible to secure satisfactory sliding properties and operability of the slider.

Claims

1. A slider for a slide fastener comprising: a slider body comprising at least a first blade, a second blade opposed to the first blade, a guide column for connecting shoulder opening side ends of the first and second blades to each other, and a pair of first flange sections disposed on left and right side edges of the first blade and extending toward left and right side edges of the second blade; and a tab disposed on at least one of the first and second blades, wherein the slider body comprises an element guide passage surrounded by element guide surfaces, wherein: the slider body comprises a slider main member and a slider sub-member formed independently from the slider main member, the slider main member comprises a first portion including at least an inner wall surface of the shoulder opening side end of the first blade and a second portion including at least an inner wall surface of the shoulder opening side end of the second blade and the guide column connecting integrally the first and second portions, the pair of first flange sections of the first blade are integrally formed with the slider sub-member, the slider sub-member is assembled with and fixed to the slider main member, and the element guide surfaces of the slider body comprise at least the inner wall surface of the first portion of the slider main member, the inner wall surface of the second portion of the slider main member and inner wall surfaces of the pair of the first flange sections of the slider sub-member.

2. The slider according to claim 1, wherein the inner wall surface of the first portion of the slider main member is continuous from a shoulder opening side end edge to a rear opening-side end edge, and the inner wall surface of the second portion of the slider main member is continuous from a shoulder opening side end edge to a rear opening-side end edge.

3. The slider according to claim 1, wherein the first blade comprises a first main body which is disposed on the slider main member and which includes the inner wall surface of the first portion, and a second main body which is disposed on the slider sub-member, which connects the pair of first flange sections, and which is assembled with the first main body.

4. The slider according to claim 3, wherein a fitting portion provided on the second main body is fitted into a fitted portion provided in the first main body, and the slider sub-member is assembled with and fixed to the slider main member.

5. The slider according to claim 4, wherein: the fitted portion of the first main body of the slider main member comprises a recessed first fitted portion disposed in a shoulder opening side end of the first main body, and a second fitted portion outwardly projecting in a width direction of the slider from left and right side edges of the first main body, the second main body comprises a base portion, foundation portions which are disposed on left and right side edges of the base portion and which support the pair of first flange sections, and an extending portion which extends from the base portion toward a shoulder and which can resiliently deform, and the fitting portion of the second main body of the slider sub-member comprises a hook-shaped first fitting portion which stands on a tip end of the extending portion and which is fitted into the first fitted portion, and a concave groove-shaped second fitting portion which is recessed in the foundation portion and which is fitted into the second fitted portion.

6. The slider according to claim 4, wherein: the fitted portion of the first main body of the slider main member comprises a concave groove-shaped first fitted portion disposed in a shoulder opening side end of the first main body, a concave groove-shaped second fitted portion placed in a rear opening-side end of the first main body, and the second main body comprises a hook-shaped first fitting portion which is disposed on a shoulder opening side end of the second main body and which can be fitted into the concave groove-shaped first fitted portion of the fitted portion of the first main body, and a hook-shaped second fitting portion which is disposed on a rear opening-side end of the second main body and which can be fitted into the concave groove-shaped second fitted portion of the fitted portion of the first main body.

7. The slider according to claim 6, wherein: the second main body comprises a base portion, a pair of cutouts formed on a rear opening-side end of the base portion, and a tongue piece portion which is sandwiched between the pair of cutouts and which can resiliently deform, and the hook-shaped first fitting portion stands on a shoulder opening side end of the base portion, and the hook-shaped second fitting portion stands on a rear opening-side end of the tongue piece portion.

8. The slider according to claim 1, wherein the slider sub-member is assembled with and fixed to the slider main member by adhesion or welding.

9. The slider according to claim 1, the slider sub-member is assembled with and fixed to the slider main member using a fixing member.

10. The slider according to claim 1, wherein: a pair of second flange sections extending toward the first blade is disposed on the left and right side edges of the second blade, the slider body further comprises a slider second sub-member formed independently from the slider main member and the slider sub-member, the pair of second flange sections is integrally formed on the slider second sub-member, and the slider second sub-member is assembled with and fixed to the slider main member.

11. A method for repairing a slide fastener wherein a slider attached to a slide fastener is replaced with the slider according to claim 1, thereby repairing the slide fastener.

Description

BRIEF DESCRIPTION OF DRAWINGS

(1) FIG. 1 is a perspective view showing a slider body of a slider according to Example 1 of the invention.

(2) FIG. 2 is an exploded perspective view of the slider body of the slider according to Example 1 of the invention which is disassembled into a slider main member and a slider sub-member.

(3) FIG. 3 is an explanatory diagram for explaining assembly of the slider main member and the slider sub-member.

(4) FIG. 4 is a partially sectional schematic diagram of an assembled state of the slider body of the slider according to Example 1 of the invention.

(5) FIG. 5 is a sectional view taken along line V-V in FIG. 4.

(6) FIG. 6 is a plan view showing a slide fastener to be repaired.

(7) FIG. 7 is a perspective view showing a slider body of a slider according to Example 2 of the invention.

(8) FIG. 8 is an exploded perspective view of the slider body of the slider according to Example 2 of the invention which is disassembled into a slider main member and a slider sub-member.

(9) FIG. 9 is an explanatory diagram for explaining assembly of the slider main member and the slider sub-member.

(10) FIG. 10 is a sectional view of an assembled state of the slider body of the slider according to Example 2 of the invention.

(11) FIG. 11 is an exploded perspective view of an exploded slider body of a slider according to Example 3 of the invention.

(12) FIG. 12 is a sectional view of an assembled state of the slider body of the slider according to Example 3 of the invention.

(13) FIG. 13 is an exploded perspective view of an exploded slider body of a slider according to Example 4 of the invention.

(14) FIG. 14 is a sectional view of an assembled state of the slider body of the slider according to Example 4 of the invention.

(15) FIG. 15 is a perspective view showing a slider body of a slider according to Example 5 of the invention.

(16) FIG. 16 is a sectional view of the slider body of the slider according to Example 5 of the invention.

(17) FIG. 17 is a schematic diagram of the slider body of the slider according to Example 5 of the invention as viewed from a rear opening side.

(18) FIG. 18 is a perspective view showing a slider body of a slider according to Example 6 of the invention.

(19) FIG. 19 is a sectional view of the slider body of the slider according to Example 6 of the invention.

(20) FIG. 20 are sectional views for explaining an assembling method of a conventional slider body.

DESCRIPTION OF EMBODIMENT

(21) A preferred embodiment of the invention will be described in detail with reference to the drawings based on Examples. The invention is not limited to Examples described below, and the invention can variously be modified only if the modified invention has substantially the same configuration as that of the invention and exerts the same working effects.

(22) Although a case where one slider is attached to element rows of a fastener chain is described in following Examples for example, it is also possible, in the invention, to attach two sliders to the element rows of the fastener chain such that two sliders oppose at their shoulder opening side ends or rear opening-side ends facing each other.

(23) Although a case where a tab of the slider is placed on the side of an upper blade of the slider body in following Example, it is possible, in the invention, to attach the tab on the side of the lower blade of the slider body, or to attach tabs both on the side of the upper blade and on the side of the lower blade of the slider body.

(24) In the slider described in following Examples, the tab is held by a tab-attaching column, and the slider is configured as a so-called free slider having no locking mechanism using a locking pawl, but the invention can also be applied likewise to a slider which is not the free slider, e.g., a slider of a type in which a cover body is attached on the side of an upper surface of the upper blade instead of the tab-attaching column, and a slider of a type having a locking mechanism in which a locking pawl is placed in an element guide passage such that the locking pawl can move forward and backward.

EXAMPLE 1

(25) FIG. 1 is a perspective view showing a slider body of a slider for a slide fastener according to Example 1. FIG. 2 is an exploded perspective view of the slider body which is disassembled into a slider main member and a slider sub-member, and FIG. 3 is an explanatory diagram for explaining assembly of the slider main member and the slider sub-member.

(26) In the following description, a sliding direction of the slider is defined as a longitudinal direction, especially a direction in which the slider moves to couple element rows of the slide fastener to each other is defined as a forward direction (shoulder direction), and a direction in which the slider moves to separate the element rows from each other is defined as a rearward direction (rear opening-side direction).

(27) A height direction of the slider is defined as a vertical direction. In principle, a side from which the slide fastener is exposed outside when it is used (side where tab is attached to slider body for example) is defined as an upward direction, and a direction opposite from the upward direction is defined as a downward direction. A direction intersecting with the sliding direction of the slider at right angles, i.e., a width direction of the slider is defined as a lateral direction.

(28) As shown in FIG. 5, a slider 1a of Example 1 includes a slider body 1 and a tab 9 rotatably held on the side of an upper blade 11 of the slider body 1. The slider 1a of Example 1 is used for a so-called element-back using type slide fastener 8a in which element rows of left and right fastener stringers are placed on a lower surface side with respect to a fastener tape. In the invention, a configuration of the tab 9 is not especially limited.

(29) The slider body 1 of Example 1 includes an upper blade 11, a lower blade 12, a guide column 13 connecting shoulder opening side ends of the upper and lower blades 11 and 12, a tab-attaching column 14 placed on the side of an upper surface of the upper blade 11, and lower flange sections 15 standing along left and right side edges of the lower blade 12. In the case of Example 1, the lower blade 12 is placed as a first blade of the invention, and the upper blade 11 is placed as a second blade of the invention.

(30) First bulge portions 16a placed along left and right side edges of the upper blade 11, and a central second bulge portion 16b extending from the guide column 13 toward a rear end (rear opening-side end) are formed on a lower surface (element guide surface) of the upper blade 11. A third bulge portion 16c for guiding a fastener element of the slide fastener 8a is formed on an upper surface (element guide surface) of the lower blade 12 such that the third bulge portion 16c rearwardly extends from the guide column 13.

(31) The entire upper blade (second blade) 11 of Example 1 is composed of a single member. The lower blade (first blade) 12 is composed of a lower blade first main body (first blade first main body) 12a having an element guide surface, and a lower blade second main body (first blade second main body) 12b attached to a lower surface (outer surface) side of the lower blade first main body 12a.

(32) Left and right shoulders are formed on a front end of the slider body 1 such that the shoulders sandwich the guide column 13, and a rear opening is formed in a rear end of the slider body 1. A substantially Y-shaped element guide passage is formed such that it is surrounded by the upper blade 11, the lower blade 12 and the pair of left and right lower flange sections 15. The left and right shoulders and the rear opening-side are in communication with each other through the element guide passage. In this case, an inner wall surface (element guide surface) of the element guide passage of the slider body 1 is formed by an inner wall surface of the upper blade 11, an inner wall surface of the lower blade 12, and inner wall surfaces of the pair of left and right lower flange sections 15. Further, a tape insertion gap through which a fastener tape of the slide fastener 8a is inserted is formed between the upper blade 11 (especially first bulge portion 16a) and the lower flange sections 15.

(33) As shown in FIG. 2, the slider body 1 in Example 1 includes a slider main member (first slider member) 21 and a slider sub-member (second slider member) 22 which can be assembled with each other. An inner wall surface (element guide surface) of the element guide passage of the slider body 1 is composed of both the slider main member 21 and the slider sub-member 22 so that the slider body 1 can be assembled and the element rows of the slide fastener 8a can be inserted into the element guide passage of the slider body 1 at the same time.

(34) More specifically, the slider main member 21 includes the entire upper blade 11, the lower blade first main body 12a of the lower blade 12, the guide column 13 and the tab-attaching column 14 of the slider body 1. The entire slider main member 21 is integrally formed by injection molding or die casting molding. Here, the later-described lower blade second main body 12b of the slider sub-member 22 is attached to the lower blade first main body 12a and according to this, the lower blade 12 is configured together with the lower blade second main body 12b.

(35) The lower blade first main body 12a of the slider main member 21 includes a first base portion 21a configuring a flat element guide surface, a recessed first fitted portion (fitted recess) 21b formed in the shoulder opening side end (front end) of the first base portion 21a, second fitted portions (projecting stripes) 21c placed on left and right side edges of the first base portion 21a, and a positioning portion 21d downwardly projecting from a lower surface of the first base portion 21a.

(36) In this case, an upper surface (inner wall surface) of the first base portion 21a forms the entire element guide surface of the lower blade 12 in the slider body 1. In this invention, it is only necessary that the first base portion 21a of the lower blade first main body (first blade first main body) 12a in the slider main member 21 includes at least a region of the entire shoulder opening side end (front end) in the element guide surface of the lower blade 12 in a width direction of the slider, and it is unnecessary to include a region of the entire element guide surface of the lower blade 12 as in Example 1.

(37) In the slider main member 21 of Example 1, the first fitted portion 21b of the lower blade first main body 12a is recessed rearward in a front end of the lower blade first main body 12a so that a portion (first fitting portion 22b) of the slider sub-member 22 is inserted and fitted into the first fitted portion 21b. Each of second fitted portions 21c is composed of projecting stripes which project outward along a direction intersecting with the vertical direction at right angles from left and right side edges of the first base portion 21a in a region corresponding to a portion where the lower flange sections 15 is placed when the slider body 1 is assembled. The second fitted portions 21c engage with portions (second fitting portions 22c) of the slider sub-member 22.

(38) The positioning portion 21d is formed into a shape corresponding to a shape of a front end edge of a later-described second base portion 22a in the slider sub-member 22. By abutting the slider sub-member 22 against the positioning portion 21d, a position of the slider sub-member 22 in the longitudinal direction is aligned with the slider main member 21.

(39) The slider sub-member 22 includes the lower blade second main body 12b which is fitted over the lower blade first main body 12a of the slider main member 21, and the lower flange sections 15 which are integrally formed on the lower blade second main body 12b. The entire slider sub-member 22 is integrally by injection molding or die casting molding for example.

(40) The lower blade second main body 12b includes the second base portion 22a assembled with the first base portion 21a of the lower blade first main body 12a substantially in parallel with the first base portion 21a, left and right foundation portions 22d which are placed on left and right side lines of the second base portion 22a and which become pedestals of the lower flange sections 15, an extending portion 22e which extends forward (shoulder direction) from the second base portion 22a and which can resiliently deform in the vertical direction, a hook-shaped first fitting portion (hook portion) which is placed on a tip end of the extending portion 22e and which is fitted into the first fitted portion 21b of the slider main member 21, and the groove-shaped second fitting portions (concave grooves) 22c which are placed on inner walls of the foundation portions 22d and which are fitted into the second fitted portions 21c of the slider main member 21.

(41) In this case, the second base portion 22a of the lower blade second main body 12b is placed on a rear half of the lower blade second main body 12b and is formed into a flat plate shape. A front end edge of the second base portion 22a has a shape corresponding to that of the positioning portion 21d of the slider main member 21.

(42) The hook-shaped first fitting portion 22b stands on a tip end of the extending portion 22e, and an upper end of the first fitting portion 22b swells rearward and is formed into a hook shape. Each of the second fitting portions 22c is recessed toward an inner surface of the foundation portion 22d along the foundation portion 22d so that the second fitting portion 22c can be fitted into the second fitted portion 21c of the slider main member 21.

(43) In Example 1, the second fitted portions 21c of the slider main member 21 are composed of projecting stripes which project from left and right side edges of the first base portion 21a, and the second fitting portions 22c of the slider sub-member 22 are composed of concave grooves which are recessed in inner surfaces of the foundation portions 22d.

(44) In the invention, however, positions, dimensions and forms of the first and second fitted portions 21b and 21c of the slider main member 21 and positions, dimensions and forms of the first and second fitting portions 22b and 22c of the slider sub-member 22 can freely be changed only if the first and second fitting portions 22b and 22c of the slider sub-member 22 can appropriately be fitted respectively into the first and second fitted portions 21b and 21c of the slider main member 21. For example, it is possible to employ such a configuration that the second fitted portions 21c of the slider main member 21 are formed into concave grooves which are recessed in left and right side surfaces of the first base portion 21a, and the second fitting portions 22c of the slider sub-member 22 are formed into projecting stripes which project from inner surfaces of the foundation portions 22d.

(45) When the slider body 1 of Example 1 is assembled using the above-described slider main member 21 and slider sub-member 22, as shown in FIGS. 2 and 3, the second fitting portions 22c (concave grooves) of the slider sub-member 22 are fitted into the second fitted portions 21c (projecting stripes) of the slider main member 21 from the rear opening sides, and the slider sub-member 22 is made to relatively slide toward the shoulder opening side of the slider main member 21. According to this, the second fitting portions 22c of the slider sub-member 22 are fitted into the second fitted portions 21c of the slider main member 21.

(46) At this time, the extending portion 22e of the slider sub-member 22 resiliently deforms such that the extending portion 22e downwardly curves, and the hook-shaped first fitting portion 22b moves to an end of the shoulder opening side of the slider main member 21. Further, after the second fitting portions 22c of the slider sub-member 22 are fitted into the second fitted portions 21c of the slider main member 21, the slider sub-member 22 is strongly pushed forward against the slider main member 21, and the hook-shaped first fitting portion 22b standing from the tip end of the extending portion 22e is fitted into the first fitted portion 21b of the slider main member 21.

(47) By fitting the first and second fitting portions 22b and 22c of the slider sub-member 22 respectively into the first and second fitted portions 21b and 21c of the slider main member 21 in this manner, the slider sub-member 22 is assembled with the slider main member 21, and the slider body 1 of Example 1 shown in FIG. 1 in which the slider main member 21 and the slider sub-member 22 are stably fixed to each other with predetermined fixing strength is configured.

(48) The slider body 1 of Example 1 which is once assembled in this manner can again be disassembled into the slider main member 21 and the slider sub-member 22. For example, the first fitting portion 22b of the slider sub-member 22 is pulled out from the first fitted portion 21b of the slider main member 21 using a thin rod member while strongly pushing the slider sub-member 22 forward against the slider main member 21, and the slider sub-member 22 is relatively slid toward the rear opening-side of the slider main member 21 while curving the extending portion 22e of the slider sub-member 22 downward. According to this, since the second fitting portions 22c of the slider sub-member 22 are pulled out from the second fitted portions 21c of the slider main member 21, the slider main member 21 and the slider sub-member 22 can be separated from each other.

(49) The slider 1a of Example 1 assembled using the slider main member 21 and the slider sub-member 22 can easily be attached to a fastener chain from which portions of the left and right element rows are separated.

(50) More specifically, first, in a portion of the fastener chain where the left and right element rows start separating from each other, the element rows are positioned with respect to the slider main member 21 while inserting the left and right element rows between the lower blade first main body 12a of the slider main member 21 and the upper blade 11.

(51) At this time, since the lower blade first main body 12a of the slider main member 21 and the upper blade 11 are integrally formed together through the guide column 13, the element rows can easily be inserted between the lower blade first main body 12a and the upper blade 11, and it is possible to stably position the element rows with respect to the slider main member 21.

(52) Next, the slider sub-member 22 is fitted over and assembled with the slider main member 21 into which the element rows are inserted. According to this, as shown in FIG. 5, the slider body 1 in Example 1 is assembled and the element rows can be inserted into the element guide passage of the slider body 1 at the same time. Therefore, it is possible to easily and efficiently attach the slider body 1 to the fastener chain.

(53) If the slider 1a having the slider body 1 which is attached in this manner is slid along the element rows of the fastener chain, the left and right element rows of the fastener chain can be coupled to and separated from each other.

(54) Therefore, as shown in FIG. 6 for example, when a portion (e.g., tab-attaching column) of the slider of the slide fastener 8a attached to an article 10 such as a shoe is damaged, the damaged slider is detached from the element rows of the slide fastener 8a and then, the slider 1a of Example 1 is attached to the element rows of the slide fastener 8a. According to this, it is possible to easily repair the slide fastener 8a.

(55) In the invention, a method to detach a damaged slider from the element rows of the slide fastener 8a is not especially limited. For example, a strong force is applied to a lower flange section of a damaged slider to forcibly bend the lower flange section and the slider can be detached from the element rows. When a damaged slider is the slider 1a of Example 1 for example, if the slider main member 21 and the slider sub-member 22 are separated from each other, the slider 1a can easily be detached from the element rows.

(56) The slider 1a of Example 1 is preferably used not only when the above-described slide fastener 8a is repaired, but also when a slider is exchanged in accordance with user's interest for example.

(57) According to the slider 1a of Example 1, the upper blade 11 and the lower blade first main body 12a are integrally formed together through the guide column 13 in the slider main member 21. Hence, a distance between the upper and lower blades 11 and 12 (especially distance between upper and lower blades 11 and 12 in shoulder opening side end) stably has a predetermined height dimension without receiving influence of assembly accuracy when the slider body 1 is assembled. A dimension error is less prone to generate in the distance between the upper and lower blades 11 and 12 (i.e., height dimension of element guide passage in vertical direction).

(58) Therefore, according to the slider 1a of Example 1, since a dimension and a form of the element guide passage formed between the upper and lower blades 11 and 12 are stable, when the slider 1a is slid along the element rows (especially when slider 1a is slid in coupling direction of element rows), it is possible to stabilize attitude and motion of the fastener element in the element guide passage of the slider 1a. As a result, it is possible to smoothly couple and separate the left and right element rows to and from each other, and it is possible to secure satisfactory sliding properties and operability of the slider 1a.

(59) Further, in the slider 1a of Example 1, the entire element guide surfaces of the upper and lower blades 11 and 12 are provided on the slider main member 21, it is possible to prevent a level difference from being formed on the element guide surfaces of the upper and lower blades 11 and 12 of the slider body 1 from the shoulder opening side end edge to the rear opening-side end edge, and the element guide surface is formed flat. According to this, when the slider 1a of Example 1 is slid along the element rows, it is possible to prevent inconvenience such as that the fastener element is caught on the element guide surface of the slider 1a, and to further enhance the sliding properties and the operability of the slider 1a.

(60) In the slider 1a of Example 1, the entire element guide surface of the lower blade 12 is provided on the slider main member 21, and the lower flange sections 15 with respect to the lower blade 12 are provided on the slider sub-member 22. Therefore, a position of a boundary between the slider main member 21 and the slider sub-member 22 is set between the lower blade 12 and the lower flange sections 15 which configure the element guide passage.

(61) However, in the invention, a portion (inner portion) of the lower blade 12 including the element guide surface of the shoulder opening side end may be provided on the slider main member, and a remaining portion (outer portion) of the lower blade 12 and the lower flange sections 15 may be provided on the slider sub-member. According to this, the position of the boundary between the slider main member and the slider sub-member may be set such that the boundary divides the lower blade 12.

(62) In this case, it is preferable that the portion (inner portion) of the lower blade 12 placed on the side of the slider main member including the element guide surface of the shoulder opening side end is larger than the remaining portion (outer portion) of the lower blade 12 placed on the side of the slider sub-member. By sliding the slider and carrying out the opening/closing operation of the slide fastener, the left and right element rows can stably be coupled to and separated from each other.

(63) Here, the portion (inner portion) of the lower blade 12 including the element guide surface of the shoulder opening side end and the remaining portion (outer portion) of the lower blade 12 are the inner surfaces (element guide surfaces) configuring the element guide passage. Further, its dimension means a dimension of a surface area of each of the element guide surfaces.

EXAMPLE 2

(64) FIG. 7 is a perspective view showing a slider body of a slider according to Example 2. FIG. 8 is an exploded perspective view of the slider body which is disassembled into a slider main member and a slider sub-member, and FIG. 9 is an explanatory diagram for explaining assembly of the slider main member and the slider sub-member. FIG. 10 is a sectional view of an assembled state of the slider body.

(65) In the description and the drawings of Example described below, the same reference signs and names are allocated to members and portions having substantially the same configurations and function as those of Example 1, and detailed descriptions thereof will be omitted.

(66) The slider of Example 2 includes a slider body 2 and a tab (not shown) which is rotatably held on the side of an upper blade 11 of the of the slider body 2. The slider body 2 includes a lower blade (first blade) 17, an upper blade (second blade) 11, a guide column 13 connecting shoulder opening side ends of the upper and lower blades 11 and 17 to each other, a tab-attaching column 14 placed on an upper surface side of the upper blade 11, and lower flange sections 15 standing along left and right side edges of the lower blade 17.

(67) A substantially Y-shaped element guide passage is formed on the slider body 2 such that the element guide passage is surrounded by the upper and lower blades 11 and 17 and the pair of left and right lower flange sections 15. An inner wall surface (element guide surface) of the element guide passage is composed of an inner wall surface of the upper blade 11, an inner wall surface of the lower blade 17 and inner wall surfaces of the pair of left and right lower flange sections 15.

(68) In Example 2, the entire upper blade 11 which becomes the second blade is composed of a single member. The lower blade 17 which becomes the first blade is composed of a lower blade first main body (first blade first main body) 17a having an element guide surface, and a lower blade second main body (first blade second main body) 17b attached to a lower surface side of the lower blade first main body 17a.

(69) The slider body 2 in Example 2 includes a slider main member (first slider member) 31 and a slider sub-member (second slider member) 32 which can be assembled with each other. An inner wall surface (element guide surface) of the element guide passage of the slider body 2 is composed of both the slider main member 31 and the slider sub-member 32 so that the slider body 2 can be assembled and element rows can be inserted into the element guide passage of the slider body 2 at the same time.

(70) In this case, the slider main member 31 includes the entire upper blade 11, the lower blade first main body 17a of the lower blade 17, the guide column 13 and the tab-attaching column 14 of the slider body 2. The entire slider main member 31 is integrally formed by injection molding or die casting molding.

(71) As shown in FIG. 9, the lower blade first main body 17a of the slider main member 31 includes a first base portion 31a configuring a flat element guide surface, a concave groove-shaped first fitted portion (fitted recess) 31b formed in a shoulder opening side end (front end) of the first base portion 31a, a level difference notch portion 31d formed in a rear opening-side end of the first base portion 31a, and a concave groove-shaped second fitted portion (fitted recess) 31c formed in the notch portion 31d. In this case, an upper surface (inner wall surface) of the first base portion 31a forms the entire element guide surface of the lower blade 17 in the slider body 2.

(72) The slider sub-member 32 includes a lower blade second main body 17b which is fitted over the lower blade first main body 17a of the slider main member 31, and the lower flange sections 15 which are integrally formed on the lower blade second main body 17b. The entire slider sub-member 32 is integrally formed by injection molding or die casting molding.

(73) The lower blade second main body 17b includes a flat plate-shaped second base portion 32a, left and right foundation portions 32d which are placed on left and right side lines of the second base portion 32a and which become pedestals of the lower flange sections 15, and a positioning portion 32e which stands on a rear opening-side end of the second base portion 32a and which can come into contact with the notch portion 31d of the slider main member 31. A hook-shaped first fitting portion (first hook) 32b which is fitted into the first fitted portion 31b on the side of a front end of the slider main member 31 stands on a front end of the second base portion 32a.

(74) A pair of left and right cutouts 32f forwardly extending from a rear end of the second base portion 32a and a tongue piece portion 32g which can resiliently deform are provided on a central portion of a rear end of the second base portion 32a in the width direction. The tongue piece portion 32g is sandwiched between the pair of cutouts 32f. A hook-shaped second fitting portion (second hook) 32c which is fitted into the second fitted portion 31c on the side of a rear end of the slider main member 31 stands on a rear end of the tongue piece portion 32g.

(75) In this case, to make it easy to fit the first and second fitting portions 32b and 32c of the slider sub-member 32 into the first and second fitted portions 31b and 31c of the slider main member 31 when the slider sub-member 32 is assembled with the slider main member 31, inclined surfaces for guiding the first and second fitting portions 32b and 32c of the slider sub-member 32 are formed on tip ends of lower surface sides of the first and second fitted portions 31b and 31c of the slider main member 31 as shown in FIG. 9. Inclined surfaces are formed also on tip ends of the first and second fitting portions 32b and 32c of the slider sub-member 32, and the inclined surfaces downwardly incline toward the tip ends of the first and second fitting portions 32b and 32c.

(76) In Example 2, positions, dimensions and forms of the first and second fitted portions 31b and 31c of the slider main member 31 and positions, dimensions and forms of the first and second fitting portions 32b and 32c of the slider sub-member 32 can freely be changed only if the first and second fitting portions 32b and 32c of the slider sub-member 32 can appropriately be fitted respectively into the first and second fitted portions 31b and 31c of the slider main member 31.

(77) When the slider body 2 of Example 2 is assembled using the slider main member 31 and the slider sub-member 32, the slider sub-member 32 is brought close to the slider main member 31 from below and the slider sub-member 32 is pushed toward the slider main member 31 as shown in FIG. 9.

(78) According to this, the first and second fitting portions 32b and 32c of the slider sub-member 32 are respectively inserted and fitted into the first and second fitted portions 31b and 31c of the slider main member 31 while resiliently and partially deforming the second base portion 32a of the slider sub-member 32 (especially while resiliently deforming tongue piece portion 32g).

(79) Alternatively, the first fitting portion 32b of the slider sub-member 32 is inserted and fitted into the first fitted portion 31b of the slider main member 31 and thereafter, the second fitting portion 32c of the slider sub-member 32 is pushed toward the second fitted portion 31c of the slider main member 31. According to this, the second fitting portion 32c of the slider sub-member 32 is inserted and fitted into the second fitted portion 31c of the slider main member 31 while resiliently deforming the tongue piece portion 32g of the slider sub-member 32.

(80) In Example 2, when the slider sub-member 32 is fitted over the slider main member 31, the positioning portion 32e of the slider sub-member 32 is inserted into the notch portion 31d of the slider main member 31. According to this, a position of the slider sub-member 32 with respect to the slider main member 31 can further be stabilized.

(81) By fitting the first and second fitting portions 32b and 32c of the slider sub-member 32 respectively into the first and second fitted portions 31b and 31c of the slider main member 31 in this manner, the slider body 2 of Example 2 in which the slider main member 31 and the slider sub-member 32 are stably fixed to each other with predetermined fixing strength is configured.

(82) The slider body 2 of Example 2 which is once assembled in this manner can again be disassembled into the slider main member 31 and the slider sub-member 32 by pulling out the second fitting portion 32c of the slider sub-member 32 from the second fitted portion 31c of the slider main member 31 using a thin rod member while strongly pushing the slider sub-member 32 rearward against the slider main member 31 for example.

(83) The slider of Example 2 having such a slider body 2 can easily be attached to a fastener chain from which portions of the left and right element rows are separated like the slider body 1 of the slider 1a of Example 1. Therefore, the slider of Example 2 is preferably used when a slide fastener is repaired or a slider is exchanged.

(84) Especially in the slider of Example 2, the upper blade 11 and the lower blade first main body 17a are integrally formed together through the guide column 13 in the slider main member 31. Hence a distance between the upper and lower blades 11 and 17 (especially distance between upper and lower blades 11 and 17 in shoulder opening side ends) stably has a predetermined height dimension, and a height dimension error in the vertical direction is less prone to generate in the element guide passage in the slider body 2.

(85) Therefore, it is possible to smoothly couple and separate the left and right element rows to and from each other when the slider of Example 2 is slid along the element rows, and it is possible to secure satisfactory sliding properties and operability of the slider.

(86) Further, in the slider of Example 2, the entire element guide surfaces of the upper and lower blades 11 and 17 are provided on the slider main member 31, a level difference is prevented from being formed on the element guide surfaces of the upper and lower blades 11 and 17 of the slider body 2 from the shoulder opening side end edge to the rear opening-side end edge. According to this, it is possible to further enhance the sliding properties and operability like the slider 1a of Example 1.

(87) In the slider of Example 2 also, a position of a boundary between the slider main member 31 and the slider sub-member 32 is set between the lower blade 17 and the lower flange sections 15. However, in the invention, a portion (inner portion) of the lower blade 17 including the element guide surface of the shoulder opening side end may be provided on the slider main member 31, and a remaining portion (outer portion) of the lower blade 17 and the lower flange sections 15 may be provided on the slider sub-member 32. According to this, the position of the boundary between the slider main member 31 and the slider sub-member 32 may be set such that the boundary divides the lower blade 17.

EXAMPLE 3

(88) FIG. 11 is an exploded perspective view of an exploded slider body of a slider according to Example 3, and FIG. 12 is a sectional view of an assembled state of the slider body.

(89) The slider of Example 3 includes a slider body 3 and a tab (not shown) which is rotatably held on the slider body 3. The slider body 3 includes a lower blade (first blade) 18, an upper blade (second blade) 11, a guide column 13 connecting shoulder opening side ends of the upper and lower blades 11 and 18 to each other, a tab-attaching column 14 placed on an upper surface side of the upper blade 11, and lower flange sections 15 standing along left and right side edges of the lower blade 18.

(90) In Example 3, the entire upper blade (second blade) 11 is composed of a single member. The lower blade (first blade) 18 includes a lower blade first main body (first blade first main body) 18a having an element guide surface, and a lower blade second main body (first blade second main body) 18b attached to a lower surface side of the lower blade first main body 18a.

(91) The slider body 3 in Example 3 includes a slider main member (first slider member) 41 and a slider sub-member (second slider member) 42 which can be assembled with each other. An element guide surface of the slider body 3 is composed of both the slider main member 41 and the slider sub-member 42 so that the slider body 3 can be assembled and element rows can be inserted into the element guide passage of the slider body 3 at the same time.

(92) In this case, the slider main member 41 includes the entire upper blade 11, the lower blade first main body 18a of the lower blade 18, the guide column 13 and the tab-attaching column 14 of the slider body 3, and the entire slider main member 41 is integrally configured by injection molding or die casting molding.

(93) The lower blade first main body 18a of the slider main member 41 includes a first base portion 41a configuring a flat element guide surface, and a level difference notch portion 41d formed in a rear opening-side end of the first base portion 41a. In this case, an upper surface (inner wall surface) of the first base portion 41a forms an entire element guide surface of the lower blade 18 in the slider body 3.

(94) The slider sub-member 42 includes the lower blade second main body 18b fitted over the lower blade first main body 18a of the slider main member 41, and the lower flange sections 15 which are integrally formed on the lower blade second main body 18b, and the entire slider sub-member 42 is integrally configured by injection molding or die casting molding.

(95) The lower blade second main body 18b includes a flat plate-shaped second base portion 42a, left and right foundation portions 42d which are plated on left and right side lines of the second base portion 42a and which become pedestals of the lower flange sections 15, and a positioning portion 42e which stands on a rear opening-side end of the second base portion 42a and which is inserted into the notch portion 41d of the slider main member 41. In this case, since the positioning portion 42e and the left and right foundation portions 42d of the lower blade second main body 18b are connected to each other, strength of the lower blade second main body 18b is enhanced.

(96) When the slider body 3 of Example 3 is assembled using the slider main member 41 and the slider sub-member 42, adhesive is applied to the entire upper surface of the second base portion 42a in the slider sub-member 42. Next, the second base portion 42a of the slider sub-member 42 is adhered to a lower surface side of the first base portion 41a of the slider main member 41 through adhesive such that the positioning portion 42e of the slider sub-member 42 is inserted into the notch portion 41d of the slider main member 41. In this case, it is possible to freely select one of various kinds of adhesives such as solvent volatile adhesive, thermal hardening adhesive, two-component hardening adhesive and film-shaped adhesive.

(97) According to this, the slider body 3 of Example 3 in which the slider sub-member 42 is assembled with and fixed to the slider main member 41 is configured. In the invention, when the slider sub-member 42 is assembled with and fixed to the slider main member 41, welding means such as high frequency welding and thermal welding can be utilized instead of adhesion using the above-described adhesives.

(98) Since it is possible to easily attach the slider of Example 3 to a fastener chain from which portions of the left and right element rows are separated as in Examples 1 and 2, the slider is preferably used when the slide fastener is repaired or when the slider is exchanged.

(99) According to the slider of Example 3, a distance between the upper and lower blades 11 and 18 (especially distance between upper and lower blades 11 and 18 in shoulder opening side end) stably has a predetermined height dimension, and an error is less prone to generate in the height dimension in the vertical direction of the element guide passage in the slider body 3. No level difference is formed on the element guide surfaces of the upper and lower blades 11 and 18 of the slider body 3 from the shoulder opening side end edge to the rear opening-side end edge. Hence, it is possible to obtain satisfactory sliding properties and operability.

EXAMPLE 4

(100) FIG. 13 is an exploded perspective view of an exploded slider body of a slider according to Example 4, and FIG. 14 is a sectional view of an assembled state of the slider body.

(101) The slider of Example 4 includes the slider body 4 and a tab (not shown) which is rotatably held on the slider body 4. The slider body 4 includes a lower blade (first blade) 19, an upper blade (second blade) 11, a guide column 13 connecting shoulder opening side ends of the upper and lower blades 11 and 19 to each other, a tab-attaching column 14 placed on an upper surface side of the upper blade 11, and lower flange sections 15 standing along left and right side edges of the lower blade 19.

(102) In Example 4, the entire upper blade (second blade) 11 is composed of a single member. The lower blade (first blade) 19 includes a lower blade first main body (first blade first main body) 19a having an element guide surface, and a lower blade second main body (first blade second main body) 19b attached to a lower surface side of the lower blade first main body 19a.

(103) The slider body 4 in Example 4 includes a slider main member (first slider member) 51 and a slider sub-member (second slider member) 52 which can be assembled with each other. The slider body 4 also includes a split pin member 53 for holding and fixing a state where the slider main member 51 and the slider sub-member 52 are fitted to each other. An element guide surface of the slider body 4 is composed of the slider main member 51 and the slider sub-member 52 so that the slider body 4 can be assembled and element rows can be inserted into the element guide passage of the slider body 4 at the same time.

(104) In this case, the slider main member 51 is integrally provided with the entire upper blade 11, the lower blade first main body 19a of the lower blade 19, the guide column 13 and the tab-attaching column 14 of the slider body 4. As shown in FIG. 14, the lower blade first main body 19a and the guide column 13 of the slider main member 51 are provided with a column insertion hole 51e extending upward from a lower surface side of the lower blade first main body 19a. A later-described fixing column 52h of the slider sub-member 52 is inserted into the column insertion hole 51e.

(105) A first pin insertion hole 51f into which the split pin member 53 is inserted is provided in the guide column 13 of the slider main member 51. The first pin insertion hole 51f rearwardly extends from a front surface side of the guide column 13. In this case, the first pin insertion hole 51f extends more rearward than a position where the column insertion hole 51e is formed so that the first pin insertion hole 51f intersects with the column insertion hole 51e.

(106) The lower blade first main body 19a of the slider main member 51 includes a first base portion 51a configuring a flat element guide surface, a level difference notch portion 51d formed on a rear opening-side end of the first base portion 51a, and a concave groove-shaped fitted portion (fitted recess) 51b formed in a level difference surface oriented rearward of the notch portion 51d. In this case, an upper surface (inner wall surface) of the first base portion 51a forms an entire element guide surface of the lower blade 19 in the slider body 4.

(107) The slider sub-member 52 is integrally provided with a lower blade second main body 19b fitted over the lower blade first main body 19a of the slider main member 51, the lower flange sections 15 integrally formed on the lower blade second main body 19b, and the fixing column 52h standing on a front end of the lower blade second main body 19b.

(108) The lower blade second main body 19b includes a flat plate-shaped second base portion 52a, left and right foundation portions 52d which are placed on left and right side lines of the second base portion 52a and which become pedestals of the lower flange sections 15, and a positioning portion 52e which stands on a rear opening-side end of the second base portion 52a and which is inserted into the notch portion 51d of the slider main member 51.

(109) A pair of left and right cutouts 52f is provided in a central portion of a rear end of the second base portion 52a in the width direction. The cutouts 52f forwardly extend from the rear end of the second base portion 52a. A tongue piece portion 52g which can resiliently deform is placed on the central portion of the rear end of the second base portion 52a such that the tongue piece portion 52g is sandwiched between the pair of cutouts 52f. A hook-shaped fitting portion 52b stands on a rear end of the tongue piece portion 52g. The fitting portion 52b is fitted into the fitted portion 51b of the slider main member 51.

(110) In this case, to make it easy to fit the fitting portion 52b of the slider sub-member 52 into the fitted portion 51b of the slider main member 51 when the slider sub-member 52 is assembled with the slider main member 51, an inclined surface for guiding the fitting portion 52b of the slider sub-member 52 is formed on a tip end of a lower surface side of the fitted portion 51b of the slider main member 51 as shown in FIG. 14. An inclined surface is also formed on a tip end of the fitting portion 52b of the slider sub-member 52, and the inclined surface downwardly inclines toward the tip end.

(111) The fixing column 52h of the slider sub-member 52 has a shape (quadrangular prism shape in the case of Example 4) corresponding to a space of the column insertion hole 51e provided in the slider main member 51. A second pin insertion hole 52i into which the split pin member 53 is inserted is formed in the fixing column 52h along the longitudinal direction. In this case, the second pin insertion hole 52i is provided at a position corresponding to that of the first pin insertion hole 51f of the slider main member 51 so that the second pin insertion hole 52i and the first pin insertion hole 51f are connected to each other when the slider sub-member 52 is assembled with the slider main member 51.

(112) The split pin member 53 of Example 4 is formed cylindrically. The split pin member 53 has a straight slit 53a formed along a length direction of the split pin member 53. By pressing the split pin member 53 in a direction narrowing the slit 53a, the split pin member 53 can resiliently deform such that a diameter of the split pin member 53 is reduced.

(113) When the slider body 4 of Example 4 having the slider main member 51, the slider sub-member 52 and the split pin member 53 is assembled, the fixing column 52h of the slider sub-member 52 is first fitted into the column insertion hole 51e of the slider main member 51.

(114) Subsequently, the fitting portion 52b of the slider sub-member 52 is pushed toward the fitted portion 51b of the slider main member 51. According to this, the fitting portion 52b of the slider sub-member 52 is inserted and fitted into the fitted portion 51b of the slider main member 51 while resiliently deforming the tongue piece portion 52g of the slider sub-member 52.

(115) According to this, the slider sub-member 52 is assembled with the slider main member 51 from a lower surface side of the lower blade first main body 19a. At this time, the lower blade second main body 19b of the slider sub-member 52 comes into intimate contact with the lower blade first main body 19a of the slider main member 51, and a position of the first pin insertion hole 51f formed in the slider main member 51 and a position of the second pin insertion hole 52i formed in the slider sub-member 52 are aligned with each other.

(116) Next, in a state where the split pin member 53 is pressed and its diameter is reduced, the split pin member 53 is inserted into the first pin insertion hole 51f of the slider main member 51 and the second pin insertion hole 52i of the slider sub-member 52 from a front surface side of the slider main member 51. Thereafter, the pressed state of the split pin member 53 is released, the split pin member 53 resiliently restores and the split pin member 53 comes into the first and second pin insertion holes 52i under pressure. According to this, the state where the slider sub-member 52 is assembled with the slider main member 51 is held by the split pin member 53. Therefore, the slider body 4 of Example 4 in which the slider main member 51 and the slider sub-member 52 are stably fixed to each other with predetermined fixing strength is configured.

(117) Since it is possible to easily attach the slider of Example 4 to a fastener chain from which portions of the left and right element rows are separated as in Examples 1 to 3, the slider is preferably used when the slide fastener is repaired or when the slider is exchanged.

(118) According to the slider of Example 4, a distance between the upper and lower blades 11 and 19 (especially distance between upper and lower blades 11 and 19 in shoulder opening side end) stably has a predetermined height dimension, and an error is less prone to generate in the height dimension in the vertical direction of the element guide passage in the slider body 4. Further, no level difference is formed on the element guide surfaces of the upper and lower blades 11 and 19 of the slider body 4 from the shoulder opening side end edge to the rear opening-side end edge. Hence, it is possible to obtain satisfactory sliding properties and operability.

EXAMPLE 5

(119) FIG. 15 is a perspective view showing a slider body of a slider according to Example 5. FIG. 16 is a sectional view of the slider body, and FIG. 17 is a schematic diagram of the slider body as viewed from a rear opening side.

(120) The slider of Example 5 includes the slider body 5 and a tab (not shown) which is rotatably held on the slider body 5. As shown in FIG. 17 for example, the slider is used for a slide fastener 8b of a type in which element rows of left and right fastener stringers are placed on an upper surface side with respect to a fastener tape.

(121) The slider body 5 of Example 5 includes an upper blade 61, a lower blade 62, a guide column 63 for connecting shoulder opening side ends of the upper and lower blades 61 and 62 to each other, a tab-attaching column 64 placed on an upper surface side of the upper blade 61, and upper flange sections 65 suspended along left and right side edges of the upper blade 61. In the case of Example 5, the upper blade 61 is placed as a first blade of the invention, and the lower blade 62 is placed as a second blade of the invention.

(122) In Example 5, the entire lower blade 62 which becomes the second blade is composed of a single member. The upper blade 61 which becomes the first blade includes an upper blade first main body (first blade first main body) 61a having an element guide surface, and an upper blade second main body (first blade second main body) 61b attached to an upper surface side of the upper blade first main body 61a.

(123) The slider body 5 in Example 5 includes a slider main member (first slider member) 71 and a slider sub-member (second slider member) 72 which can be assembled with each other. An element guide surface of the slider body 5 is composed of both the slider main member 71 and the slider sub-member 72 so that the slider body 5 can be assembled and element rows can be inserted into the element guide passage of the slider body 5 at the same time.

(124) In this case, the slider main member 71 includes the upper blade first main body 61a of the upper blade 61, the entire lower blade 62 and the guide column 63 of the slider body 5, and the entire slider main member 71 is integrally configured by injection molding or die casting molding for example.

(125) The upper blade first main body 61a of the slider main member 71 includes the first base portion 71a configuring a flat element guide surface, a concave groove-shaped first fitted portion (fitted recess) 71b formed in a shoulder opening side end (front end) of the first base portion 71a, a level difference notch portion formed in a rear opening-side end of the first base portion 71a, and a concave groove-shaped second fitted portion (fitted recess) 71c formed in a level difference oriented rearward of the notch portion. In this case, a lower surface (inner wall surface) of the first base portion 71a forms an entire element guide surface of the upper blade 61 in the slider body 5.

(126) The slider sub-member 72 includes the upper blade second main body 61b fitted over the upper blade first main body 61a of the slider main member 71, the upper flange section 65 integrally formed on the upper blade second main body 61b, and the tab-attaching column 64. The entire slider sub-member 72 is integrally configured by injection molding or die casting molding for example.

(127) The upper blade second main body 61b includes a flat plate-shaped second base portion 72a, left and right foundation portions which are placed on left and right side lines of the second base portion 72a and from which the upper flange sections 65 suspend, and a positioning portion 72e which suspends from a rear opening-side end of the second base portion 72a and which is inserted into a notch portion of the slider main member 71. A hook-shaped first fitting portion 72b suspends from a front end of the second base portion 72a. The first fitting portion 72b is fitted into the first fitted portion 71b on the side of front end of the slider main member 71.

(128) A pair of left and right cutouts 72f is provided in a central portion of a rear end of the second base portion 72a in the width direction. The cutouts 72f forwardly extend from the rear end of the second base portion 72a. A tongue piece portion 72g which can resiliently deform is placed on the central portion of the rear end of the second base portion 72a such that the tongue piece portion 72g is sandwiched between the pair of cutouts 72f. A hook-shaped second fitting portion 72c suspends from a rear end of the tongue piece portion 72g. The fitting portion 72c is fitted into the fitted portion 71c on the side of a rear end of the slider main member 71.

(129) In this case, to make it easy to fit the first and second fitting portions 72b and 72c of the slider sub-member 72 into the first and second fitted portions 71b and 71c of the slider main member 71 when the slider sub-member 72 is assembled with the slider main member 71, inclined surfaces for guiding the first and second fitting portions 72b and 72c of the slider sub-member 72 are formed on tip ends of upper surface sides of the first and second fitted portions 71b and 71c of the slider main member 71 as shown in FIG. 16. Inclined surfaces are also formed on tip ends of the first and second fitting portions 72b and 72c of the slider sub-member 72, and the inclined surfaces upwardly incline toward the tip ends.

(130) When the slider body 5 of Example 5 is assembled using the slider main member 71 and the slider sub-member 72, the slider sub-member 72 is brought close to the slider main member 71 from above, and the slider sub-member 72 is pushed toward the slider main member 71. According to this, the first and second fitting portions 72b and 72c of the slider sub-member 72 are respectively inserted and fitted into the first and second fitted portions 71b and 71c of the slider main member 71 while partially resiliently deforming the second base portion 72a of the slider sub-member 72 (especially while resiliently deforming the tongue piece portion 72g).

(131) Alternatively, the first fitting portion 72b of the slider sub-member 72 is inserted and fitted into the first fitted portion 71b of the slider main member 71 and thereafter, the second fitting portion 72c of the slider sub-member 72 is pushed toward the second fitted portion 71c of the slider main member 71. According to this, the second fitting portion 72c of the slider sub-member 72 is inserted and fitted into the second fitted portion 71c of the slider main member 71 while resiliently deforming the tongue piece portion 72g of the slider sub-member 72.

(132) In Example 5, when the slider sub-member 72 is fitted over the slider main member 71, the positioning portion 72e of the slider sub-member 72 is inserted into the notch portion of the slider main member 71. According to this, a position of the slider sub-member 72 with respect to the slider main member 71 can further be stabilized.

(133) By fitting the first and second fitting portions 72b and 72c of the slider sub-member 72 respectively into the first and second fitted portions 71b and 71c of the slider main member 71 in this manner, the slider body 5 of Example 5 in which the slider main member 71 and the slider sub-member 72 are stably fixed to each other with predetermined fixing strength is configured.

(134) According to the slider of Example 5 having such a slider body 5, the same working effects as those of Examples 1 to 4 can be exerted.

(135) If the second fitting portion 72c of the slider sub-member 72 is pulled out from the second fitted portion 71c of the slider main member 71 for example, the slider body 5 of Example 5 which is once assembled in this manner can again be disassembled into the slider main member 71 and the slider sub-member 72.

EXAMPLE 6

(136) FIG. 18 is a perspective view showing a slider body of a slider according to Example 6, and FIG. 19 is a sectional view of the slider body.

(137) The slider of Example 6 includes the slider body 6 and a tab (not shown) which is rotatably held on the slider body 6 on a side of the upper blade 81. The slider is used for a slide fastener of a type in which a fastener element made of synthetic resin is injection molded on a fastener tape to form element rows for example.

(138) The slider body 6 of Example 6 includes an upper blade 81, a lower blade 82, a guide column 83 for connecting shoulder opening side ends of the upper and lower blades 81 and 82 to each other, a tab-attaching column 84 placed on an upper surface side of the upper blade 81, upper flange sections 85 suspended along left and right side edges of the upper blade 81, and lower flange sections 86 standing along left and right side edges of the lower blade 82. In this case, the upper blade 81 of the slider body 6 can be set as a first blade of the invention, and the lower blade 82 can be set as a second blade of the invention. In the case of Example 6, the lower blade 82 can be set as the first blade of the invention, and the upper blade 81 can be set as the second blade of the invention.

(139) The upper blade (first blade) 81 in Example 6 includes an upper blade first main body (first blade first main body) 81a having an element guide surface, and an upper blade second main body (first blade second main body) 81b attached to an upper surface side of the upper blade first main body 81a. The lower blade (second blade) 82 includes a lower blade first main body (second blade first main body) 82a having an element guide surface, and a lower blade second main body (second blade second main body) 82b attached to a lower surface side of the lower blade first main body 82a.

(140) The slider body 6 in Example 6 includes a slider main member 91 having the upper blade first main body 81a and the lower blade first main body 82a, a slider first sub-member 92 attached to an upper surface side of the slider main member 91, and a slider second sub-member 93 attached to a lower surface side of the slider main member 91. In this case, the element guide surface of the slider body 6 is formed using the slider main member 91, the slider first sub-member 92 and the slider second sub-member 93.

(141) Of the slider body 6, the slider main member 91 includes the upper blade first main body 81a of the upper blade 81, the lower blade first main body 82a of the lower blade 82, and the guide column 83 which connects the upper blade first main body 81a and the lower blade first main body 82a to each other. The entire slider main member 91 is integrally configured by injection molding or die casting molding.

(142) By attaching the later-described upper blade second main body 81b of the slider first sub-member 92 to the upper blade first main body 81a, the upper blade first main body 81a and the upper blade second main body 81b configure the upper blade 81. By attaching the later-described lower blade second main body 82b of the slider second sub-member 93 to the lower blade first main body 82a, the lower blade first main body 82a and the lower blade second main body 82b configure the lower blade 82.

(143) In this case, the upper blade first main body 81a of the slider main member 91 in Example 6 is configured substantially in the same manner as that of the upper blade first main body 61a of the slider main member 71 in Example 5. The lower blade first main body 82a of the slider main member 91 is configured substantially in the same manner as that of the lower blade first main body 17a of the slider main member 31 in Example 2.

(144) The slider first sub-member 92 in Example 6 is configured substantially in the same manner as that of the slider sub-member 72 in Example 5. The slider second sub-member 93 in Example 6 is configured substantially in the same manner as that of the slider sub-member 32 in Example 2.

(145) When the slider body 6 of Example 6 is assembled using the slider main member 91, the slider first sub-member 92 and the slider second sub-member 93, the slider first sub-member 92 is fitted to an upper surface side of the slider main member 91, the slider second sub-member 93 is fitted to a lower surface side of the slider main member 91 and they are assembled.

(146) According to this, the slider body 6 of Example 6 in which the slider first sub-member 92 and the slider second sub-member 93 are stably fixed to the slider main member 91 with predetermined fixing strength is configured. According to the slider of Example 6 having such a slider body 6 also, the same working effects as those of Examples 1 to 5 can be exerted. The slider body 6 of Example 6 which is once assembled can again be disassembled into the slider main member 91, the slider first sub-member 92 and the slider second sub-member 93.

REFERENCE SIGNS LIST

(147) 1 slider body 1a slider 2, 3, 4 slider body 5, 6 slider body 8a, 8b slide fastener 9 tab 10 article 11 upper blade 12 lower blade 12a lower blade first main body 12b lower blade second main body 13 guide column 14 tab-attaching column 15 lower flange section 16a first bulge portion 16b second bulge portion 16c third bulge portion 17 lower blade 17a lower blade first main body 17b lower blade second main body 18 lower blade 18a lower blade first main body 18b lower blade second main body 19 lower blade 19a lower blade first main body 19b lower blade second main body 21 slider main member 21a first base portion 21b first fitted portion (fitted recess) 21c second fitted portion (projecting stripe) 21d positioning portion 22 slider sub-member 22a second base portion 22b first fitting portion 22c second fitting portion 22d foundation portion 22e extending portion 31 slider main member 31a first base portion 31b first fitted portion (fitted recess) 31c second fitted portion (fitted recess) 31d notch portion 32 slider sub-member 32a second base portion 32b first fitting portion (first hook) 32c second fitting portion (second hook) 32d foundation portion 32e positioning portion 32f cutout 32g tongue piece portion 41 slider main member 41a first base portion 41d notch portion 42 slider sub-member 42a second base portion 42d foundation portion 42e positioning portion 51 slider main member 51a first base portion 51b fitted portion (fitted recess) 51d notch portion 51e column insertion hole 51f first pin insertion hole 52 slider sub-member 52a second base portion 52b fitting portion 52d foundation portion 52e positioning portion 52f cutout 52g tongue piece portion 52h fixing column 52i second pin insertion hole 53 split pin member 53a slit 61 upper blade 61a upper blade first main body 61b upper blade second main body 62 lower blade 63 guide column 64 tab-attaching column 65 upper flange section 71 slider main member 71a first base portion 71b first fitted portion (fitted recess) 71c second fitted portion (fitted recess) 72 slider sub-member 72a second base portion 72b first fitting portion 72c second fitting portion 72e positioning portion 72f cutout 72g tongue piece portion 81 upper blade 81a upper blade first main body 81b upper blade second main body 82 lower blade 82a lower blade first main body 82b lower blade second main body 83 guide column 84 tab-attaching column 85 upper flange section 86 lower flange section 91 slider main member 92 slider first sub-member 93 slider second sub-member