JP2003506264A - Closure device - Google Patents

Abstract

A closure device slidably engages first and second connecting fastening strips 131, 131 and first and second fastening strips to be connected over a desired length. Including a slider 132 to be used. The fastening strip has a vertical X axis 160, a horizontal Y axis 162, and a vertical Z axis 164. The slider 132 facilitates closure of the fastening strip when moved to a first end of the fastening strip, and facilitates release of closure of the fastening strip when moved to a second end of the fastening strip. The fastening strip is closed and released by moving the first fastening strip relative to the second fastening strip substantially in the vertical Z axis 164. The fastening strip also moves in the Y-axis 162 and can rotate or flex during closure. Further, the fastening strip may include locking features 1244, 1245 to prevent accidental release of the closure.

Description

Detailed Description of the Invention

FIELD OF THE INVENTION The present invention relates to interlocking closures, and more particularly to closures having sliders. The closure device is available in the traditional fastener industry and is particularly suitable for use as a fastener for storage containers such as plastic bags.

BACKGROUND OF THE INVENTION The use of tightening devices for sealing containers, including plastic bag bodies, is generally known. Further, the manufacture of tightening devices made of plastic material is generally known in the art to those skilled in the art of closures, as disclosed by numerous patents.

A particularly known use for fastening devices is in connection with flexible containers such as bag bodies. The closure and associated container may be formed from a thermoplastic material, and the closure and sidewalls of the container may be integrally extruded, such as in one piece. Alternatively, the closure and side wall may be formed as separate products and joined by heat sealing or other suitable joining method. The sealing device to be installed as a fastener on the bag body is
It has been particularly useful for providing a sealing means for holding the contents within the bag body.

[0004] Prior sealing devices use male and female sealing elements that occlude and interlock. When conventional closures are used, it can be difficult to determine when the male and female closure elements are occluded. This problem is especially acute when the closure is relatively thin. Therefore, when the conventional closure is used, it may at least partially open.

The problem of bite is that the user does not know when the male and female closures are bite to form a seal between the empty environment outside the bag and outside the bag. Caused by. Many solutions to this problem have been tried. For example, U.S. Pat. Nos. 4,186,786, 4,285,105, and 4,829,641 and Japanese Patent Laid-Open No.
1-27719 discloses a fastener for visually indicating proper engagement of male and female closure elements. In particular, a color changing means is provided for confirming the bite between the male part and the female part of the closure. Here, the male and female members having changing colors are used, and the color changes when they bite. . For example, the female member of the closure is opaque yellow and the male member of the closure is transparent blue. When there is a bite between a male member and a female member, a combined color with a hue of green occurs. The use of this color change significantly improves the usability of the articulating closure device to determine when the male and female members have occluded.

[0006] The change in color that makes male and female members of different colors visible when they bite is known as GLAD-LOCK (Glad-Lock is a product of First Br, Danbury, Conn., USA).
It can be found in the products that are marketed under the registered trademark of ands Properties Inc.). The effect of this color change can be further enhanced by incorporating a color change enhancing member in the closure device, as disclosed in US Pat. No. 4,829,641.

Color-changing closure devices, however, do not provide a solution to the above-mentioned problem of ensuring full closure. For example, color change effects are not discernible in the dark, and therefore the use of closure devices under such conditions is controversial regarding the benefits of color change. Furthermore, the color-changing effect cannot be perceived by people with impaired perception or by color blindness. Therefore, unlike this, it is desired to provide a closure device that shows occlusion.

There have been attempts in the prior art to provide fasteners that can indicate occlusion by touch or hearing. For example, U.S. Pat. Nos. 4,736,496, 5,138,750, 5,
140,727, 5,403,094, and 5,405,478, and European Patent 510,797.
The publication discloses a closure device which provides a tactile or audible indication of the proper connection of the closure elements. With the closure device of this disclosure, it is said that the user can feel or hear that all closures have been completed when occlusal is made. For example, US Pat. No. 4,736,946 discloses the use of additional ribs on either side of the closure element. These ribs are said to give the closure an improved'feel 'and thus aid the user in aligning the closure elements.

Such devices are difficult to handle because their dexterity is individually limited.
Thus, in the prior art, the slider and refastenable fasteners for closing and unclosing the fasteners are assisted by the individual and easier to use by an individual of ordinary skill. Fasteners have been provided. For example, some US patents disclose fasteners with sliders. However, many of these fasteners are: 1) U.S. Pat. Nos. 3,054,434, 3,115,689, 3,122,807, 3.2.
No. 30,593, No. 3,426,396, No. 3,713,923, No. 4,199,845, No. 4,262,395, No.
Use separator fingers that extend between closure elements, such as 5,007,142, 5,010,627 (FIGS. 9, 10), or 2) US Pat. No. 5,007,143,
No. 5,010,627 (Fig. 3-8), No. 5,050,194, No. 5.067,208, No. 5,070,583, No.
Running separator fingers along a truck along closure elements such as 5,088,971, 5,131,121, 5,161,286, 5,283,932, 5,301,395, 5,423,830, 5,442,837 and 5,448,808.

For fasteners that use separator fingers that extend between closure elements, these fasteners are not leak proof because the separator fingers extend between the closure elements. For fasteners that run along the track, the fasteners typically include slits, notches or other means for receiving the separator fingers at the end positions. These means are used to engage the closure elements in the end position and thus achieve a leakproof seal. For example, US Patent Nos. 5,020,194, 5,067,208, 5,088,971, 5,131,121,
Nos. 5,161,286, 5,301,394, 5,301,395, 5,442,837 use slits, notches or other means to receive the separator fingers at the end position. These means within the fasteners require additional steps in the manufacturing process, thus increasing the cost of these fasteners.

Reclosable fasteners with sliders but with separator fingers and without the use of trucks are described in US Pat. Nos. 3,074,137 and 5,442,838. However, the fasteners of the '137 patent are too expensive to manufacture and cannot seal when the slider is in the end position. With respect to the fasteners of the '838 patent, the slider does not directly manipulate the interlocking elements. Rather, the slider engages a structure located below the connecting element to control the closing and opening of the connecting element. Difficulties and additional variables arise when the slider does not act directly on the connected elements. further. The fasteners of the '838 patent do not operate properly if the range is incorrect for the slider and / or fastener. The structure below the connecting element and / or the slider is difficult to extrude and manufacture. If the difference is incorrect, the slider will not move smoothly and the binding element cannot be opened or closed. Therefore, it is difficult to achieve fasteners with appropriate functions.

Prior art closure devices are designed so that the closure is released when sufficient force is applied laterally to the closure device. Therefore, the closure device may be accidentally unclosed when force is applied laterally. For example, when a closure device is used on a plastic bag and the contents of the bag exert a force on the side wall of the bag, the closure device is accidentally unclosed.

Further, as noted above, some closure devices use sliders that include (1) separator fingers, or (2) separator fingers and tracks. These sliders are costly to manufacture and assemble into a fastening strip.

Therefore, the prior art fails to provide a closure device with a slider that uses a shearing operation to close and unclose. In particular, the prior art does not show a closure device in which the first fastening strip moves in the shear direction relative to the second fastening strip. For example, if the longitudinal direction of the fastening strip is the X-axis, the width is the Y-axis, and the height is the Z-axis, the prior art does not show a cruiser device for closing on the Z-axis.

OBJECT OF THE INVENTION It is an object of the invention to provide a closure device in which the opening and closing force acts in the shear direction against lateral or rolling.

Another object of the present invention is to provide a closure device in which the opening and closing force is applied to only one of the fastening strips, while the other fastening strip remains fixed. This situation simplifies the slider design.

Another object is to provide a slider for use with shear closures that does not require separator fingers for opening and closing the fastening strips.

Yet another object is to provide a slider for use with a shear closure that does not require a special flange incorporated into the fastening strip to be gripped by the slider for opening the fastening strip. is there.

Yet another object is to provide a slider that can be installed around the fastening strip without opening and closing the fastening strip.

Yet another object is to provide a fastening strip with a profile of a combination of shear forces and pivotal forces capable of utilizing shearing action.

Yet another object is to provide a closure device in which the force applied to the first fastening strip also pushes the second fastening strip away from the first fastening strip.

Yet another object is to provide a closure device in which the closure device maintains a leak-tight seal over a long distance with the phase during closure and unclosure of the closure device.

Still another object is to provide a container that can be closed and sealed by such a closure device.

BRIEF SUMMARY OF THE INVENTION The present invention provides a closure device for connecting interlocking strips in which the fastening strips use shearing action to close in the Z-axis and then unclosed. Achieve general goals. The closure device includes first and second interlocking fastening strips configured to interlock over a predetermined length. The fastening strip has a longitudinal X-axis and a transverse Y-axis perpendicular to the X-axis in this longitudinal direction. The fastening strip has a vertical Z-axis that is perpendicular to the longitudinal X-axis and perpendicular to the lateral Y-axis. The tightening strips are closed and unclosed by moving one tightening with respect to the other tightening strip in a Z-axis that is substantially perpendicular.

During closure and unclosure, parts of the fastening strip rotate, bend and / or move in the lateral Y-axis. In addition, the fastening strip includes a locking mechanism that helps prevent accidental release of the closure device closure.

The closure device also includes a slider that slidably engages the first and second fastening strips. The slider facilitates closure of the fastening strip when moved towards the first end of the fastening strip and releases the closure of the fastening slip when moved towards the second end of the fastening strip. make it easier.

Description of the Embodiments The present invention provides a coupling closure device with a slider that utilizes shearing action to close in the Z-axis and release the closure. 1 shows a sealable closure device 12
1 shows a container according to the invention in the case of a plastic bag 120 with 1. The bag 120 forms a seam 125 that forms a section sealable by the closure device 121.
A side wall 122 that joins at.

The closure device includes first and second fastening strips 130, 131 and a slider 132. As shown in FIG. 3, the first fastening strip 131
Includes a first closure element 134. The second fastening strip 130 includes a second closure element 136 for engaging the first closure element 134.

The first closure element 134 includes a base portion 138 and a web 140 extending from the base portion 138. Web 140 includes a hook portion 142 extending from web 140.

The second closure element 136 includes a base portion 148 and a web 150 extending from the base portion 148. Web 150 includes a hook portion 152 extending from web 150.

As shown in FIGS. 1-3, the closure device and fastening strips have an X axis 160, a Y axis 162 and a Z axis 164. The X axis 160 is the vertical axis of the closure device, the Y axis 162 is the horizontal axis perpendicular to the X axis 160, and the Z axis is the vertical axis perpendicular to the X axis 160 and the Y axis 162.

As shown in FIGS. 4-5, the slider 132 has a top portion 170, a first side portion 174, a second side portion 176, a bottom portion 178 and a stot 180. As shown in FIG. 2, slider 132 has a first end 184 and a second end 186.

As shown in FIGS. 4 and 5, the upper portion 170 has an inner surface 220 and an outer surface 222. The inner surface 220 includes an offset portion 224 that includes an upper surface 225 and an offset lateral surface 226. The offset portion 224 begins at the second end 186 and slopes toward the first end 184.

The bottom portion 178 includes an inner surface 230 and an outer surface 232. The inner surface 230 includes an offset portion 234 that includes an upper surface 236 and an offset lateral surface 238. The offset portion 234 begins at the second end 186 and slopes toward the first end 184.

The first lateral portion 174 has an inner surface 240 and an outer surface 242. The second lateral portion 176 has an inner surface 248 and an outer surface 250. The bottom portion 178 has a slot 180 extending from the outer surface 232 to the inner surface 230. Further, the slot extends from the first end 184 of the slider to the second end 186. The slot has a width substantially the same as the width of the slider from the first end 184 to the second end 186.

The slider may be of unitary construction and may consist of several parts assembled in different ways.

6-9 show closure of the closure device and release of the closure. Figure 6-9
Figure 6-9 shows the closure of the fastening strips, in order of drawing number. 6-9 are viewed in the reverse order of the drawing numbers (from FIG. 9 to FIG. 6),
Indicates elimination of closure of fastening strips.

Closure of the fastening strip is described, and release of closure of the fastening strip is described. The slider 132 facilitates closing of the fastening strips 130, 131 by moving the fastening strips 130, 131 relative to each other in the shear direction, ie the Z direction, and engaging the web. As shown in FIG. 2, the slider 132 moves in the closing direction 280 and the fastening strips 130, 131 enter the slider 132 as shown in FIG. As shown in FIG. 6, the fastening strips 130, 131 are unclosed and the web 140 and web 150 are separated by a distance.
Only 259 away. In addition, the upper surface 236 of the bottom portion and the inner surface 220 of the top portion
Are separated by a distance of 260.

As shown in FIG. 7, the slider is further shown in FIG.
Moving along the tightening strip in the closing direction 280, the slider causes the tightening strip to approach in the shear direction, ie, the Z-axis 164 direction, as shown in FIG. In FIG. 7, the fastening strips 130, 131 have been unclosed. However, the upper surface 236 and the inner surface 220 are closer to each other than in the case of FIG. 6, but are separated by a distance 262 which is shorter than the distance 260 in the case of FIG. Due to the reduced distance, the upper surface 236 and the inner surface 220 allow the fastening strips to move in the Z-axis 164.
In the direction of, move them closer to each other. Therefore, the webs 140, 150 are separated by a distance 263 which is shorter than the distance 259 in FIG. Furthermore, hooks 142, 1
52 begin to bend so that the hooks can pass through each other and engage when the fastening strips are closed.

As can be seen from FIGS. 6-9, the position of the fastening strip is influenced not only by the acting force exerted by the slider at that location, but also by the location of the fastening strips in front of and behind that location. For example, the location of the fastening strips in Figure 7 is affected by the location of the fastening strips in Figures 6 and 8.

The degree of effect that the location of the fastening strip from one location has on the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. Also, if the material of the fastening strip is rigid, the effect elsewhere is greater than if the material is relatively flexible.

In FIG. 8, as the slider continues in the closing direction 280 along the fastening strip as shown in FIG. 2, the slider moves the fastening strip into the Z direction as shown in FIG. At axes 164, they are brought closer together. 8, upper surface
236 and inner surface 220 are closer to each other than in FIG. 7, but the distance in FIG.
Only a distance 264 shorter than 262 is separated. The surfaces 220, 236 exert a force on the fastening strips, causing the fastening strips to move closer together in the Z-axis. Further, the hooks 142, 152 of FIG. 8 are more flexed compared to FIG. 7 so that the hooks pass through each other and engage when the fastening strips close.

In FIG. 9, as the sliders move in the closing direction 280 along the fastening strips, the sliders move the fastening strips closer together at the Z axis 164, as shown in FIG. Keep moving. In FIG. 9, the fastening strips 130, 131 are closed. In particular, the webs 140, 150 are closed and the hooks 142, 152 engage each other. The surfaces 220 and 236 are closer to each other in the case of FIG. 9 than in the case of FIG. 8, but separated by a distance 266 which is shorter than the distance 264 in the case of FIG. The inner surfaces 240, 248 apply force to the fastening strips, causing the fastening strips to move closer together in the Z axis 164. Web 140, 150,
A distance 267, which is smaller than the distance 265 in FIG. Therefore, as shown in FIG. 9, the fastening strips 130, 131 are closed before the slider exits.

The fastening strips 130, 131 are closed by moving the fastening strips towards each other at the Z-axis 164. The Z-axis travel distance is approximately equal to the Z-axis direction dimension of the closure. The tightening strips 130, 131 of Figures 6-9 are Z
On the axis, we moved a distance equal to the difference between distance 259 and distance 267. Distance 259 to Distance 267
Subtracted is referred to as the Z-axis distance. The Z-axis movement distance is substantially equal to or equal to the dimension of the hook portion 152 in the Z-axis direction in FIG. Therefore, in order to close the fastening strips 130, 131, the fastening strips are moved closer to each other by a Z-axis travel distance equal to the Z-axis dimension of the closure part.

Unclosure of the fastening strips 130, 131 of FIGS. 6-9 is done by following these figures in reverse. Therefore, the release of the closure is shown by starting in FIG. 9 and tracing backwards towards FIG. The slider 132 facilitates unlocking of the fastening strips by moving the fastening strips away from each other in the Z-axis 164 direction and disengaging the web. As can be seen from Figure 2,
The slider 132 moves in the closing release direction 281 and the fastening strips 130, 131 enter into the slider 132 as shown in FIG. As can be seen from FIG.
The fastening strips 130, 131 are closed when they enter the slider 132. The surfaces 225, 230 are separated by a distance 268 and the webs 140, 150 are separated by a distance 267.

In FIG. 8, as the slider moves along the fastening strip in the direction of releasing the closure, the slider causes the fastening strip to move relative to each other at the Z-axis 164, as shown in FIG. Move it away. As shown in FIG. 8, the surfaces 225, 230 are separated by a distance 269 which is shorter than the distance 268 in the case of FIG.
The surfaces 225 and 230 have a reduced distance so that the fastening strip can be moved in the Z axis 164
Move them away from each other. In addition, the bending of the hooks 142, 152 begins to revert so that the hooks pass through each other and disengage when the fastening strips are unclosed. During release of the closure, the positions of the hooks 142, 152 in FIG. 8 are facing each other, as shown in FIG. Especially during the release of the closure the hook 14
The position of 2 is in the downward direction and the position of the hook 152 is in the upward direction.

Further, as described above, the position of the fastening strip is influenced not only by the acting force received by the slider at a special place but also by the position of the fastening strip before and after the special place. In this case, the fastening strips 130, 131 are urged against the surfaces 225, 230 due to the shearing action of the surfaces 225, 230, as shown in Figure 6-9.

As can be seen from FIG. 7, as the slider continues to move in the unclosure direction 281 along the fastening strip, as shown in FIG. Continue to move away from each other on the Z-axis 164 as shown. As can be seen in FIG. 7, the surfaces 225, 230 are separated by a distance 270 which is shorter than the distance 269 in the case of FIG. The surfaces 225, 230 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 164. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 140, 150 are separated by a distance 263 which is longer than the distance 265 in the case of FIG. Further, the hooks 142, 152 of FIG. 7 are more bent than in the case of FIG. 8 so that the hooks pass each other and become disengaged. Also, as mentioned above, the positions of the hooks in FIG. 7 are facing each other during the release of the closure.

With reference to FIG. 6, the slider moves along the tightening strip in the direction of release 28 of the closure.
Continuing to move to 1, the slider keeps the fastening strips away from each other, as shown in FIG. As can be seen in Figure 6, the fastening strip 13
0,131, and thus the closure of the web 225,230 is lifted. The surfaces 225, 230 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 164. The fastening strips are unclosed due to the shearing action between the fastening strips. Therefore, the webs 140, 150 are separated by a distance 259 which is longer than the distance 263 in the case of FIG. Further, the engagement of the hooks 142 and 152 in FIG. 6 is released. As shown in FIG. 6, the engagement of the webs 140, 150 of the fastening strips 130, 131 is disengaged as the fastening strips exit the slider 132.

FIG. 10 shows the slider 132 at the end position of the fastening strips 130, 131 near the seam 125. Figures 11-14 show the closure of the fastening strip in its end position. According to one feature of the invention, these figures illustrate a closure device that forms a leak-tight seal when the slider is in the end position. In FIG. 1, the fastening strip 131 has a notch 278 near the seam 125. As shown in FIG. 1 and shown in FIGS. 11-13 by the dashed lines, the notches 278 define the fastening strips 131 so that the hooks 142, 152 and thus the fastening strips can be closed in the end position. Part 282 has been removed.

In the end position, the movement of the fastening strips 130, 131 is shown in FIGS. 11-14. As mentioned above, the position of the tightening fastener is influenced not only by the acting force received by the slider at a certain place, but also by the position of the tightening strips at positions before and after that place. In particular, with respect to the position of the webs 140, 150 of FIGS. 11-13, the position of the inner webs 140, 150 is affected by the seam 125 at the end of the fastening strip. At the seam 125, the fastening strips 130, 131 are fused together in the closed position. Tightening strips 130, 13 with seam 125
This closure of 1, and the notch 278 prevent the shearing action of the slider from unblocking the web 140, 150. Thus, the webs 140,150 remain closed because the notches and seams prevent the sliders from unclosing the webs 140,150. As a result, the webs 140, 150 maintain a total closure along the length of the fastening strip, forming a leak-tight seal along the length of the fastening strip.

For example, when the user moves the slider in the closing direction 280, as shown in FIG. 10, the slider will move the fastening strips 130, 131 in the order shown in FIGS. 11-14. Close. When the slider is in the position shown in FIGS. 11-13, the closure of the fastening strip webs 140, 150 is normally released, as shown in FIGS. 6-8. Further, the slider is prevented from moving further in the closing direction 280 by the seam 125 or when the slider contacts the end stop, or by other devices.
However, as described above, the seam 125 is shown in FIG.
In this position, the webs 140 and 150 are closed. Therefore, when the slider moves to the position shown in FIGS. 11-13, the webs 140, 150 are already closed, due to the shearing action of the slider, the closing effect of the notches 278 and the seams 125,
The closure of the fastening strip cannot be released. Therefore, the web 140
, 150 maintains a closure along the length of the fastening strip, forming a leak-tight seal.

Another feature of the invention is to provide an additional seal. As can be seen in FIG. 11, the slider 132 has a slot 180 at the bottom of the slider, which slot extends along the length of the slider. The side wall 122 of the bag extends from the fastening strips 130, 131 through the slot 180. Slot 180 is
Only width 284 includes a first surface 286 and a second surface 288 that are separated. The width is narrow enough to provide a seal between the side walls 122 near the location of the faces 286,288, and is wide enough to allow the slider to move along the side walls 122 without difficulty in moving the slider. wide. Therefore, the slot 180 provides an additional seal along the length of the slider.

The slider is attached to the fastening strips so that the slider can be moved about the longitudinal X axis rather than the lateral Y axis or the vertical Z axis. In particular, the slot 180 and the bottom portion 178 form a shoulder that holds the slider 132 on the fastening strips 130, 131. As can be seen in FIG. 11, the inner surfaces 220, 230, 240, 248 surround the fastening strips 130, 131. Moreover, the width 284 of the slot 180 is such that the fastening strips 130, 131 cannot come out. Therefore, the user cannot remove the slider 132 from the fastening strips 130, 131 by pulling upward in FIG. Additionally, the sidewalls 122 and / or the fastening strips 130, 131 engage the inner surfaces 220, 230, 240, 248 and act as guides to allow the slider 132 to move along the fastening strips.

Another feature of the invention is that the slider can be used without adding end stops on the fastening strips. As noted above and shown in FIGS. 11-13, the absence of notches in one of the fastening strips prevents further movement of the slider in the closing direction 280. In particular, the closure of the fastening strip near the seam 125 eliminates the freedom of movement of the fastening strip, which requires the slider to move along the fastening strip. As a result, the slider is prevented from moving further in the closing direction 280. Similar effects occur at other seams in the closure release direction 281. Therefore, the slider is
It can be used without adding an end stop to the end of the fastening strip. However, US Pat. Nos. 5,067,208, 5,088,971, 5,131,121 and 5
, 161,28, 5,189,764, 5,405,478, 5,442,837, 5,448,807,
And end stoppers, such as the end stoppers shown in 5,482,375, which are incorporated herein by reference, may be used.

Tightening strips and / or sliders may also be found in US Pat. No. 5,067,208.
No. 5,189,764, No. 5,301,394, and No. 5,301,395, which are incorporated herein by reference, at the end of the fastening strips, at a home position or parking for a slider. Structures may be included to provide location.

Tightening strips and sliders are also described in US Pat. Nos. 5,020,194, 5,0
67,208, 5,088,971, 5,131,121, 5,161,286, 5,301,394, No.
At the end of the fastening strip, such as slits and other means shown in 5,067,395 and 5,442,837, which are incorporated herein by reference,
Other structures for receiving the slider may be included. This structure can also accept separator fingers, thus near the end of the fastening strip,
The webs 140 and 150 can also be closed.

The fastening strips and / or side walls of the bag also allow the user to
Fingers may be assembled to allow easier opening and entry of items. The fingers extend over the web and the slider may increase its height to receive the fingers.

15A and 15B show another embodiment of a slider. The slider includes one or two bulges 292, 293 at or near the end 294 of the slider.
The bulges 292, 293 move the fastening strips 130, 131 closer together and form a seal between the contact surfaces of the fastening strips. Thus, the bulges 292, 293 form a seal between the contact surfaces of the fastening strips even if the closure of the fastening strips is released in the position of Figure 15A.

FIG. 15C shows another embodiment of the closure device of the present invention. In this embodiment, the closure device includes other types of closure parts. As can be seen in FIG. 15C, the fastening strip 330 has a web 350 similar to the web 150 of FIG.
And the fastening strip 331 includes a web 340 similar to the web 140 of FIG. However, the closure portion 352 differs from the closure portion 152 of FIG. Similarly, closure portion 342 differs from closure portion 142 of FIG. Closure part 34
2, 352 includes additional hooks 343, 353 and recesses 344, 354 between the hooks, respectively. Additionally, the base portions 338, 348 include recesses 358, 360 for receiving a portion of the hooks 343, 353 when the fastening strip is in the closed position.

FIG. 15C shows the fastening strips 330, 331 in the closed position. Closing and releasing the closing of the fastening strips 330, 331 is performed by the fastening strip 13 described above.
This is the same as the closure of 0, 131 and the release of the closure.

16-24 show another embodiment of the present invention. This embodiment uses the same shearing action as the other embodiments to close and release the X axis. In addition, this embodiment rotates one of the fastening strips and the web bends during closure and unclosure. Closing and unclosure of the fastening strips may be done manually, and sliders may be used to facilitate closure and unclosure.

FIG. 16 shows a plan view of the closure device. The closure device includes first and second fastening strips 430, 431 and a slider 432. FIG. 17
The first fastening strip 431 includes a first closure element 434, as shown in FIG. The second fastening strip 430 includes a second closure element 436 for engaging the first closure element 434.

The first closure element 434 includes a base portion 438 and a web 440 extending from the base portion 438. Web 440 includes a hook portion 442 extending from web 440. The base portion 438 includes a recess 458.

The second closure element 436 includes a base portion 448 and a web 450 extending from the base portion 448. Web 450 includes a hook portion 452 extending from web 450. Base portion 448 includes recess 459.

As shown in FIGS. 16-17, the closure device and fastening strips have an X axis 460, a Y axis 462 and a Z axis 464. The X axis 460 is the vertical axis of the closure device, the Y axis 462 is the horizontal axis perpendicular to the X axis 460, and the Z axis 464 is the X axis 460.
And a vertical axis perpendicular to the Y-axis 462.

As shown in FIGS. 18-19, slider 432 includes a top portion 470, a first side portion 474, a second side portion 476, a bottom portion 478, and a slot 480. As shown in FIG. 16, the slider 432 has a first end 484 and a second end 48.
Having 6.

As shown in FIGS. 18 and 19, top portion 470 has an inner surface 520 and an outer surface 522. Inner surface 520 includes upper surface 525 and offset lateral surface 526.
Including offset portion 524, including. The offset portion 524 begins at the second end 486 and slopes toward the first end 484.

Bottom portion 478 includes an inner surface 530 and an outer surface 532. The inner surface 530 includes an offset portion 534 that includes an upper surface 536 and an offset lateral surface 538. Offset portion 534 begins at second end 486 and slopes toward first end 484.

The first lateral portion 474 has an inner surface 540 and an outer surface 542. The second lateral portion 476 has an inner surface 548 and an outer surface 550. Bottom portion 478 has a slot 480 extending from outer surface 432 to inner surface 530. In addition, the slot extends from the slider first end 484 to the second end 486. The slot has a width that is substantially the same as the width of the slider from the first end 484 to the second end 486.

The slider may be of unitary construction and may consist of several parts assembled in various ways.

20-24 show closure of the closure device and release of the closure. Figure 2
Looking at 0-24 in the order of the drawing numbers, Figures 20-24 show closure of the fastening strips. Looking at FIGS. 20-24 in reverse order from the drawing number (from FIG. 24 to FIG. 20), FIGS. 20-24 show the closure strip closure release.

Closure of the fastening strip is described, and release of the closure of the fastening strip is described. The slider 432 facilitates closing of the fastening strips 430, 431 by moving the fastening strips 430, 431 relative to each other in the shear, or Z, direction and engaging the web. As shown in FIG. 16, the slider 432 moves in the closing direction 580 and the fastening strips 430, 431 move into the slider 432 as shown in FIG. As shown in FIG. 20, the fastening strips 430, 431 are unclosed and the webs 440 and 450 are unblocked.
Are separated by a distance of 559. Further, the upper surface 536 of the bottom portion and the inner surface 520 of the top portion are separated by a distance 560. Furthermore, the fastening strips 430 rotate an angle to the Z axis 464.

As shown in FIG. 21, when the slider is moved along the fastening strip in the closing direction 581, as further shown in FIG.
Tighten the fastening strips in the shear direction, ie Z, as shown in FIG.
Approach in the direction of axis 464. In FIG. 21, the fastening strips 430, 431 have been unclosed. However, the upper surface 536 and the inner surface 520 are closer to each other than in the case of FIG. 20, but are separated by a distance 562 which is shorter than the distance 560 in the case of FIG.
The reduced distance causes the upper surface 536 and the inner surface 520 to move the fastening strips toward each other in the direction of the Z-axis 464. Therefore, the webs 440 and 450 are separated by a distance 563 which is shorter than the distance 559 in the case of FIG. Further, the webs 440, 450 begin to bend and engage when the fastening strips are closed so that the hooks can pass through each other.

As can be seen from FIGS. 20-24, the position of the fastening strips is influenced not only by the acting force experienced by the slider at that location, but also by the location of the fastening strips before and after that location. For example, the location of the fastening strips in Figure 21 is affected by the location of the fastening strips in Figures 20 and 22. In FIG. 21, the fastening strips 430 rotate an angle to the Z axis 464. However, in this position, the slider 432 does not apply a force to the fastening strip 430 to produce the angular position of the fastening strip 430 in this position. The fastening strips 430 are at this angle because the fastening strips are continuous and the portion of the fastening strips 430 of Figures 22-24 acts on the portion of the fastening strips 430 of Figure 21.

The extent of the effect that the location of the fastening strip from one location has on the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. In another example, the rigid material of the fastening strip is more effective elsewhere than when the material is relatively soft.

In FIG. 22, as the slider continues in the closing direction 580 along the fastening strip as shown in FIG. 16, the slider moves the fastening strip into the Z direction as shown in FIG. Axes 464 bring them closer together. In FIG. 22,
The upper surface 536 and the inner surface 520 are closer to each other than in FIG.
The distance 564 is shorter than the distance 562 in the case of. The surfaces 520, 536 exert a force on the fastening strips, causing the fastening strips to move closer together in the Z axis 464. The webs 440 and 450 have a distance 5 shorter than the distance 563 in the case of FIG.
Only 65 are apart. Further, the webs 440, 450 of FIG. 22 are compared to FIG. 21 so that the hooks pass through each other and engage when the fastening strips close.
Bend more.

In FIG. 23, the slider has a closing direction 580 along the fastening strip.
After continuing to move to, the slider keeps the fastening strips moving closer to each other on the Z-axis 464, as shown in FIG. In FIG. 23, the upper surface 536 and the inner surface 520 are closer to each other than in FIG. 22, but are separated by a distance 566, which is shorter than the distance 564 in the case of FIG. The surfaces 520, 536 apply a force to the fastening strips, causing the fastening strips to move closer together in the Z axis 564. The webs 540 and 550 are separated by a distance 567 that is less than the distance 565 in FIG. Further, the web 450 of FIG. 23 is more flexible than that of FIG. However,
The web 440 no longer bends and returns to its previous flexible position, as in FIG.

In FIG. 24, the slider has a closing direction 580 along the fastening strip.
24, the slider continues to move the fastening strips closer together on the Z-axis 464, as shown in FIG. In FIG. 24, the fastening strips 430, 431 are closed. In particular, the webs 440 and 450 are closed and the hooks 44
2, 452 engage each other. In addition, the hooks engage the recesses 458 and 459. Surface 52
0 and 536 are closer to each other in FIG. 24 than in FIG. 23, but are apart from each other by a distance 568 shorter than the distance 566 in the case of FIG. The surfaces 520, 536 apply a force to the fastening strips, causing the fastening strips to move closer together in the Z axis 564. The webs 440 and 450 have a distance 5 smaller than the distance 567 in the case of FIG.
Only 69 are apart. Therefore, as shown in FIG. 24, the fastening strips 430, 431 are closed before leaving the slider.

The closing closure of the fastening strips 430, 431 of FIGS. 20-24 is done by following these figures in the opposite direction. Therefore, the release of the closure begins in FIG.
It is shown by tracing backwards towards 0. The slider 432 facilitates unlocking of the fastening strips by moving the fastening strips away from each other in the direction of the Z axis 464 and disengaging the web. As can be seen in FIG. 16, the slider 432 moves in the closing release direction 581 and the fastening strips 430, 431 enter the slider 132, as shown in FIG. As can be seen in FIG. 24, the fastening strips 430, 431 are closed when they enter the slider 432. The surfaces 525, 530 are separated by a distance 574 and the webs 440, 450 are separated by a distance 569.

In addition, the slider causes the fastening strip 430 to rotate an angle to the Z-axis 464. In particular, the fastening strip 430 applies a force to the fastening strip 430 and engages the lateral surface 526 that causes the fastening strip 430 to rotate. Rotation of the fastening strip facilitates the release of the fastening strip closure. In particular, the rotation is
Make sure the hook 442 moves away from the depression 459. As shown in FIG. 24, the web 450 unbends or flexes, causing the base 448 to rotate an angle to the Z-axis 464.

In FIG. 23, as the slider moves along the tightening strip in the unclosing direction 581, the slider moves the tightening strip at the Z-axis 464, as shown in FIG. Move them away from each other. As shown in FIG. 23, the surfaces 525, 530 are separated by a distance 576 which is shorter than the distance 574 in the case of FIG. The surfaces 525, 530 move the fastening strips away from each other in the Z axis 464 due to the reduced distance. In addition, the web 450 begins to revert so that the hooks pass through each other and disengage when the fastening strips are unclosed.

Further, as described above, the position of the tightening strip is affected not only by the acting force received by the slider at the special place but also by the position of the tightening strip before and after the special place. In this case, the fastening strips 430, 431 are urged against the surfaces 525, 530 due to the shearing action of the surfaces 525, 530, as shown in Figures 20-22.

As can be seen from FIG. 22, as the slider continues to move in the unclosure direction 581 along the fastening strip, as shown in FIG. 17, the slider moves the fastening strip to FIG. Continue to move away from each other on the Z-axis 464 as shown. As can be seen from FIG. 22, the surfaces 525 and 530 are
Only a distance 578 is shorter than the distance 576 in the case of. The surfaces 525, 530 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 464. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 440 and 450 have a distance of 567 in the case of FIG.
Longer distance than 565 only. Furthermore, the web 450 of FIG. 22 is more flexible than in the case of FIG. Also, the bending of the web 440 returns so that the hooks pass through each other and disengage.

With respect to FIG. 21, as the slider continues to move along the fastening strip in the closing release direction 581, as shown in FIG. 16, the slider causes the fastening strip to move toward the fastening strip as shown in FIG. Then, keep the Z-axis 464 apart from each other. In FIG. 21, surfaces 525, 530 are separated by a distance 579 which is shorter than distance 578 in the case of FIG. The surfaces 525, 530 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 464. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 440 and 450 are separated by a distance 563 which is longer than the distance 565 in the case of FIG. In addition, the webs 440, 450 continue to bend so that the hooks can pass through each other.

Referring to FIG. 20, the slider moves along the fastening strip in the direction of release of the closure.
Continuing to move to 581, the slider continues to move the fastening strips relative to each other in the Z-axis 464, away from each other, as shown in FIG. As can be seen in FIG. 20, the closures of the fastening strips 430, 431 and thus the webs 440, 450 are released. The surfaces 525 and 530 have a distance 582 which is shorter than the distance 579 in the case of FIG.
Only leave. The surfaces 525, 530 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 564. The fastening strips are unclosed due to the shearing action between the fastening strips. Therefore, the webs 440 and 450 are separated by a distance 559 which is longer than the distance 563 in the case of FIG. Further, the engagement of the hooks 442 and 452 in FIG. 20 is released. As shown in FIG. 20, the closure of the webs 440, 450 of the fastening strips 430, 431 is released as the fastening strips exit the slider 432.

As mentioned above, the closure device can also have other features. For example, the closure device may have a notch near the seam to aid in a leakproof seal. The slider may also include an additional seal at the slot. The closure device may also have end stops. Further, the closure device may have a configuration for a home or parking position. In addition, the closure device may include other arrangements, such as slits or other means, for receiving the slider at the end of the fastening strip.

25-36 illustrate another embodiment of the invention. This embodiment closes and uncloses in the Z-axis by using the same shearing action as the other embodiments. Further, this embodiment moves the fastening strips in the Y-axis and the web bends during closing and unclosing. Closing and unclosure of the fastening strips may be done manually, and sliders may be used to facilitate closure and unclosure.

FIG. 26 shows a top view of the closure device. The closure device includes first and second fastening strips 630, 631 and a slider 632. FIG. 26
The first fastening strip 631 includes a first closure element 634, as shown in FIG. The second fastening strip 630 includes a second closure element 636 for engaging the first closure element 634.

The first closure element 634 includes a base portion 638 and a web 640 extending from the base portion 638. Web 640 includes a hook portion 642 extending from web 640.

The second closure element 636 includes a base portion 648 and a web 650 extending from the base portion 648. Web 650 includes a hook portion 652 extending from web 650.

As shown in FIGS. 25-26, the closure device and fastening strips have an X axis 660, a Y axis 662 and a Z axis 664. The X axis 660 is the vertical axis of the closure device, the Y axis 662 is the horizontal axis perpendicular to the X axis 660, and the Z axis 664 is the X axis 660.
And a vertical axis perpendicular to the Y-axis 662.

As shown in FIGS. 27-28, slider 632 includes top portion 670, first side portion 674, second side portion 676, bottom portion 678, and slot 680. As shown in FIG. 25, the slider 632 has a first end 684 and a second end 68.
Having 6.

As shown in FIGS. 27 and 28, the upper portion 670 has an inner surface 720 and an outer surface 722. Inner surface 720 includes upper surface 725 and offset lateral surface 726.
Including offset portion 724. The offset portion 724 begins at the second end 786 and slopes toward the first end 684.

Bottom portion 678 includes an inner surface 730 and an outer surface 732. The inner surface 730 includes an offset portion 734 that includes an upper surface 736 and an offset lateral surface 738. Offset portion 734 begins at second end 786 and slopes toward first end 684.

The first lateral portion 674 has an inner surface 740 and an outer surface 742. The second lateral portion 676 has an inner surface 748 and an outer surface 750. Bottom portion 678 has a slot 680 extending from outer surface 732 to inner surface 730. Additionally, the slot extends from the slider first end 684 to the second end 686. The slot has a width substantially the same as the width of the slider from the first end 684 to the second end 686.

The slider may be of unitary construction and may consist of several parts assembled in various ways.

29-36 show closure of the closure device and release of that closure. Figure 2
Looking at 9-36 in the order of the drawing numbers, Figures 29-36 show closure of the fastening strips. Looking at FIGS. 29-36 in reverse order from the drawing number (from FIG. 36 to FIG. 29), FIGS. 29-36 show the closure strip closure release.

Closure of the fastening strip is described, and release of closure of the fastening strip is described. The slider 632 facilitates closing of the fastening strips 630, 631 by moving the fastening strips 630, 631 relative to each other in the shearing direction, ie the Z direction, and engaging the web. As shown in FIG. 25, the slider 632 moves in the closing direction 780 and the fastening strips 630, 631 enter the slider 632 as shown in FIG. As shown in FIG. 29, the fastening strips 630 and 631 are unclosed and the webs 640 and 650 are removed.
Are separated by a distance of 759. Moreover, the upper surface 736 of the bottom portion and the inner surface 720 of the top portion are separated by a distance 760.

When the slider is moved in the closing direction 780 along the fastening strip, as shown in FIG.
As shown in Fig. 3, the shearing direction, that is, the direction of the Z axis 664, is applied. Figure 3
At 0, the fastening strips 630, 631 are unclosed. However, the upper surface
736 and inner surface 720 are closer together than in the case of FIG. 29, but separated by a distance 762 which is less than distance 760 in the case of FIG. The reduced distance causes the upper surface 736 and the inner surface 720 to move the fastening strips toward each other in the direction of the Z-axis 664. Therefore, the webs 640 and 650 are the distance in the case of FIG.
Only 763 less than 759 are far apart. Further, the webs 640, 650 begin to bend and engage when the fastening strips are closed so that the hooks can pass through each other. At the Y-axis 662, the distance between the surfaces 740, 748 is longer than in FIG. 29 to accommodate the bends in the webs 640, 650.

As can be seen from FIGS. 29-36, the position of the fastening strip is influenced not only by the acting force exerted by the slider at that location, but also by the location of the fastening strips in front of and behind that location. For example, the location of the fastening strips of Figure 30 is affected by the location of the fastening strips of Figures 29 and 31.

The extent to which the location of the fastening strip from one location has the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. In another example, the rigid material of the fastening strip is more effective elsewhere than when the material is relatively soft.

In FIG. 31, as the slider continues to move in the closing direction 780 along the fastening strip as shown in FIG. 25, the slider moves the fastening strip as shown in FIG. Z axis 664 to bring them closer together. 31, the upper surface 756 and the inner surface 720 are closer to each other than in FIG.
Only a distance 764 shorter than the distance 762 in the case of FIG. 30 is separated. Surfaces 720 and 736 are
A force is applied to the fastening strips to move the fastening strips closer to each other on the Z axis 664. The webs 640 and 650 are closer to each other than in the case of FIG. 30, but are separated by a distance 765 which is shorter than the distance 763 in the case of FIG. Further, the webs 640, 650 of FIG. 31 are more flexed as compared to FIG. 21 so that the hooks pass through each other and engage when the fastening strips close. The distance between the surfaces 740,748 at the Y-axis 662 is to accommodate the bends in the webs 640,650.
It is longer than the distance in the case of FIG.

In FIG. 32, as the slider continues to move along the fastening strip in the closing direction 780, as shown in FIG. 25, the slider moves the fastening strip as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 664. 32, the upper surface 736 and the inner surface 720 are closer together than in FIG. 31, but separated by a distance 766, which is shorter than the distance 764 in the case of FIG. surface
The 720 and 736 apply force to the fastening strips to force the fastening strips to move in the Z-axis 664.
Then move them so that they approach each other. Webs 640 and 650 are separated by a distance 767, which is less than distance 765 in FIG. Further, the webs 640, 650 of FIG. 32 are more flexed compared to FIG. 31 so that the hooks pass through each other and engage when the fastening strips close. The distance on the Y-axis 662 between the surfaces 740, 748 is longer than in the case of FIG. 31 to accommodate the bends in the webs 640, 650.

In FIG. 33, as the slider continues to move in the closing direction 780 along the fastening strips as shown in FIG. 25, the sliders move the fastening strips as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 664. In FIG. 33, the upper surface 736 and the inner surface 720 are closer than in the case of FIG. 32, but separated by a distance 768 which is shorter than the distance 766 in the case of FIG. surface
The 720 and 736 apply force to the fastening strips to force the fastening strips to move in the Z-axis 664.
Then move them so that they approach each other. Webs 640 and 650 are the distance in the case of FIG.
Only 769 less than 767 are far apart. In addition, the webs 640, 650 of FIG. 33 are more flexed as compared to FIG. 32 so that the hooks pass through each other and engage when the fastening strips close. The distance on the Y-axis 662 between the surfaces 740, 748 is longer than in FIG. 32 to accommodate the bends in the webs 640, 650.

In FIG. 34, as the slider continues to move in the closing direction 780 along the fastening strips as shown in FIG. 25, the sliders move the fastening strips as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 664. In FIG. 34, the upper surface 736 and the inner surface 720 are closer together than in the case of FIG. 33, but separated by a distance 770 which is shorter than the distance 768 in the case of FIG. surface
The 720 and 736 apply force to the fastening strips to force the fastening strips to move in the Z-axis 664.
Then move them so that they approach each other. Webs 640 and 650 are the distance in the case of FIG.
It is only 771 smaller than 769. In addition, the webs 640, 650 of FIG. 34 are more flexed as compared to FIG. 33 so that the hooks pass through each other and engage when the fastening strips close. The distance on the Y axis between the surfaces 740, 748 is shorter than in the previous figure and accommodates the bend in the web.

In FIG. 35, as the slider continues to move in the closing direction 780 along the fastening strips as shown in FIG. 25, the sliders move the fastening strips as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 664. In FIG. 35, the upper surface 736 and the inner surface 720 are closer to each other than in the case of FIG. 33, but separated by a distance 772 which is shorter than the distance 770 in the case of FIG. The surfaces 720, 736 apply a force to the fastening strips,
The Z axes 664 are moved so that they approach each other. The webs 640 and 650 are closer to each other than in the case of FIG. 34, but separated by a distance 773 which is smaller than the distance 771 in the case of FIG. Further, the webs 640 and 650 of FIG. 35 are more flexible than those of FIG. Y
The distance at the axis between the surfaces 740, 748 is shorter than in the previous figure and accommodates the bend in the web.

With reference to FIG. 36, the slider follows the fastening strips in the direction of closure 780.
Continuing to move to, the slider will move at Z axis 664, as shown in FIG.
Continue moving the fastening strips relative to each other so that they are closer together. As can be seen in FIG. 36, the fastening strips 630, 631 are closed. In particular, the web 640
, 650 are closed and the hooks 642, 652 engage each other. Surfaces 720 and 736 are shown in FIG.
36, they are closer to each other in FIG. 36, but the distance 772 in FIG.
Only 774 shorter distances apart. The surfaces 720, 736 apply a force to the fastening strips, causing the fastening strips to move closer together in the Z-axis 664. The webs 640 and 650 are closer to each other than in the case of FIG. 35, but are separated by a distance 775 which is smaller than the distance 773 in the case of FIG. Furthermore, the webs 640 and 650 shown in FIG.
No longer bends and returns to its former flexible position, as in FIG. Furthermore, the distance on the Y axis between the surfaces 740, 748 is substantially the same as the distance in FIG. Therefore, as shown in Figure 36, the fastening strips 630, 631 are closed prior to exiting the slider.

Releasing the closure strips 630, 631 of Figures 29-36 is accomplished by following these figures in the reverse direction. Therefore, the release of the closure starts in FIG.
It is shown by tracing backwards towards 9. The slider 632 facilitates the release of the closure of the fastening strips 630, 631 by moving the fastening strips away from each other in the Z-axis 664 direction and disengaging the web. Figure 2
As can be seen from FIG. 5, the slider 632 moves in the closing release direction 781 and the fastening strips 630, 631 enter into the slider 632 as shown in FIG.
As can be seen in Figure 36, the fastening strips 630, 631 are
Once inside 632, it will be closed. Surfaces 725 and 730 are separated by distance 779, webs 640 and 6
50 is separated by a distance of 775.

In FIG. 35, as the slider moves along the tightening strip in the unclosing direction 781, the slider moves the tightening strip at the Z-axis 664, as shown in FIG. Move them away from each other. As shown in FIG. 35, the surfaces 725, 730 are separated by a distance 782 which is shorter than the distance 794 in the case of FIG. The surfaces 725, 730 move the fastening strips away from each other in the Z-axis 664 due to the reduced distance. In addition, the webs 640, 650 begin to bend so that the hooks pass through each other and are released when the fastening strips are released. The distance between the surfaces 740 and 748 on the Y-axis 662 is
It is longer than the distance in the case of FIG. 36 in order to receive the bent portions of the webs 640 and 650.

Further, as described above, the position of the fastening strip is affected not only by the acting force received by the slider at a special place but also by the position of the fastening strip before and after the special place. In this case, the fastening strips 630, 631 are urged against the surfaces 725, 730 due to the shearing action of the surfaces 725, 730, as shown in Figures 29-34.

As can be seen in FIG. 34, as the slider continues to move in the unclosure direction 781 along the fastening strip, as shown in FIG. 25, the slider moves the fastening strip in FIG. Continue to move away from each other on the Z-axis 664 as shown. As can be seen in FIG. 34, the surfaces 725, 730 are shown in FIG.
The distance 784 is shorter than the distance 782 in the case of. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 640 and 650 have a distance of 773 in the case of FIG.
Only 771 longer distances are separated. Further, the webs 640 and 650 of FIG. 34 are more bent than in the case of FIG. 35 so that the hooks pass through each other and are disengaged. The distance on the Y-axis 662 between the surfaces 740, 748 is longer than in FIG. 35 to accommodate the bends in the webs 640, 650.

As can be seen in FIG. 35, as the slider continues to move along the fastening strip in the direction of unclosure 781, as shown in FIG. 25, the slider moves the fastening strip to FIG. Continue to move away from each other on the Z-axis 664 as shown. As can be seen in FIG. 33, the surfaces 725, 730 are shown in FIG.
The distance 786 is shorter than the distance 784 in the case of. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 640 and 650 have a distance of 771 in the case of FIG.
Only 769 longer distances apart. Further, the webs 640 and 650 of FIG. 33 are more flexible than in the case of FIG. 34 so that the hooks pass through each other and are disengaged. The distance on the Y-axis 662 between the surfaces 740, 748 is longer than in FIG. 34 to accommodate the bends in the webs 640, 650.

As can be seen in FIG. 32, as the slider continues to move in the unclosure direction 781 along the fastening strip, as shown in FIG. 25, the slider causes the fastening strip to move to FIG. Continue to move away from each other on the Z-axis 664 as shown. As can be seen in FIG. 32, the surfaces 725, 730 are shown in FIG.
The distance is 788, which is shorter than the distance 786 in the case of. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 640 and 650 have a distance of 769 in the case of FIG.
Only a distance 767 longer than the distance. Further, the webs 640 and 650 of FIG. 32 continue to bend so that the hooks pass through each other and are disengaged. The distance between the surfaces 740,748 at the Y-axis 662 is to accommodate the bends in the webs 640,650.
It is longer than the distance in the case of FIG.

As can be seen in FIG. 31, as the slider continues to move along the fastening strip in the unclosure direction 781, as shown in FIG. 25, the slider moves the fastening strip into FIG. Continue to move away from each other on the Z-axis 664 as shown. As can be seen from FIG. 31, the surfaces 725 and 730 are shown in FIG.
Distance 790 is shorter than distance 788 in the case of. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 640 and 650 have a distance of 769 in the case of FIG.
Only a distance 767 longer than the distance. Further, the webs 640, 650 of FIG. 31 continue to bend so that the hooks pass through each other and are disengaged. The distance between the surfaces 740,748 at the Y-axis 662 is to accommodate the bends in the webs 640,650.
It is longer than the distance in the case of FIG.

As can be seen from FIG. 30, as the slider continues to move in the unclosing direction 781 along the fastening strip, as shown in FIG. 25, the slider moves the fastening strip to FIG. Continue to move away from each other on the Z-axis 664 as shown. As can be seen from FIG. 30, the surfaces 725 and 730 are shown in FIG.
Distance 792 is shorter than distance 790 in the case of. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 640 and 650 have a distance of 765 in the case of FIG.
Longer distance than 763 only. Further, the webs 640, 650 continue to bend so that the hooks pass through each other and are disengaged. Surface 740 at Y-axis 662
, 748 is longer than the distance in the case of FIG. 31 in order to receive the bent portions of the webs 640 and 650.

In FIG. 29, the slider is moved along the fastening strips in the closing release direction.
Continuing to move to 781, the slider keeps the fastening strips moving relative to each other, away from each other at Z-axis 664, as shown in FIG. As can be seen in FIG. 29, the closure of the fastening strips 630, 631, and thus the webs 640, 650, is released. The surfaces 525 and 530 have a distance 582 which is shorter than the distance 579 in the case of FIG.
Only leave. The surfaces 725, 730 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z axis 664. The fastening strips are unclosed due to the shearing action between the fastening strips. Therefore, the webs 640 and 650 are separated by a distance 759 which is longer than the distance 763 in the case of FIG. Furthermore, the webs 640 and 650 no longer bend, and as shown in FIG.
Return to its original flexible position. Also, the engagement of the hooks 642 and 652 of FIG. 29 is released. Furthermore, the distance between the surfaces 740, 748 will be substantially the same as in the case of FIG. As shown in FIG. 29, the closure of the webs 640, 650 of the fastening strips 630, 631 is released as the fastening strips exit the slider 632.

As mentioned above, the closure device can also have other features. For example, the closure device may have a notch near the seam to aid in a leakproof seal. The slider may also include an additional seal at the slot. The closure device may also have end stops. Further, the closure device may have a configuration for a home or parking position. In addition, the closure device may include other arrangements, such as slits or other means, for receiving the slider at the end of the fastening strip.

37-49 show another embodiment of the invention. This embodiment closes and uncloses in the Z-axis by using the same shearing action as the other embodiments. Furthermore, the fastening strip moves in the Y-axis and the base bends during closing and unclosing. Closing and unclosure of the fastening strips may be done manually, and sliders may be used to facilitate closure and unclosure.

FIG. 37 shows a plan view of the closure device. The closure device includes first and second fastening strips 830, 831 and a slider 832. Figure 38
The first fastening strip 831 includes a first closure element 834, as shown in FIG. The second fastening strip 830 includes a second closure element 836 for engaging the first closure element 834.

The first closure element 834 includes a base portion 838 and a web 840 extending from the base portion 838. Web 840 includes hook portion 842 extending from web 840. The base portion 838 includes a third hook portion 858.

The second closure element 836 includes a base portion 848 and a web 850 extending from the base portion 848. Web 850 includes a hook portion 852 extending from web 850. Base portion 848 includes a fourth hook portion 859.

As shown in FIGS. 37-38, the closure device and fastening strips have an X axis 860, a Y axis 862 and a Z axis 864. The X axis 860 is the vertical axis of the closure device, the Y axis 862 is the horizontal axis perpendicular to the X axis 860, and the Z axis 864 is the X axis 860.
And a vertical axis perpendicular to the Y-axis 862.

As shown in FIGS. 39-40, slider 832 includes a top portion 870, a first side portion 874, a second side portion 876, a bottom portion 878, and a slot 880. As shown in FIG. 37, the slider 832 has a first end 884 and a second end 88.
Having 6.

As shown in FIGS. 39 and 40, the upper portion 870 has an inner surface 920 and an outer surface 922. Inner surface 920 includes upper surface 925 and offset lateral surface 926.
Including offset portion 924. The offset portion 924 begins at the second end 886 and slopes toward the first end 884.

The bottom portion 878 includes an inner surface 930 and an outer surface 932. The inner surface 930 includes an offset portion 934 that includes an upper surface 936 and an offset lateral surface 938. Offset portion 934 begins at second end 886 and slopes toward first end 884.

The first lateral portion 874 has an inner surface 940 and an outer surface 942. The second lateral portion 876 has an inner surface 948 and an outer surface 950. The bottom portion 878 has a slot 880 that extends from the outer surface 932 to the inner surface 930. Further, the slot extends from the first end 884 of the slider to the second end 886. The slot has a width substantially the same as the width of the slider from the first end 884 to the second end 886.

The slider may be of unitary construction and may consist of several parts assembled in different ways.

44-49 show closure of the closure device and release of that closure. Figure 4
Looking at 4-49 in the order of the figure numbers, Figures 44-49 show closure of the fastening strips. Looking at FIGS. 44-49 in reverse order from the drawing number (from FIG. 49 to FIG. 44), FIGS. 44-49 show the closure strip closure release.

Closure of the fastening strip is described, and release of the closure of the fastening strip is described. The slider 832 facilitates closing of the fastening strips 830, 831 by moving the fastening strips 830, 831 relative to each other in the shear direction, ie the Z direction, and engaging the web. As shown in FIG. 37, the slider 832 moves in the closing direction 980 and the fastening strips 830, 831 move into the slider 832 as shown in FIG. As shown in FIG. 44, the fastening strips 830, 831 have their unclosed webs 840 and 850.
Are separated by a distance of 959. Further, the upper surface 936 of the bottom portion and the inner surface 920 of the top portion are separated by a distance 860.

In FIG. 45, when the slider is moved in the closing direction 980 along the fastening strip as shown in FIG. 37, the slider causes the fastening strip to move as shown in FIG. They are approached in the shear direction, that is, the direction of Z axis 864. In FIG. 45, the fastening strips 830, 831 are unclosed. However, the upper surface 936 and the inner surface 920 are closer to each other than in the case of FIG.
A distance 962 shorter than the distance 960 in the case of FIG. 44 is separated. Due to the reduced distance, the upper surface 936 and the inner surface 920 move the fastening strips toward each other in the direction of the Z-axis 864. Therefore, the webs 840 and 850 are shown in FIG.
The distance 963 is shorter than the distance 959 in the case of. In addition, the base 838,848
Engages when the fastening strips close and begin to bend so that the hooks can pass through each other. At some position, the distance between the surfaces 940 and 948 is the base 838 and 848.
Longer to accommodate the bends in. In particular, the surfaces 840 and 849 are the base 838 and 8
It has an angle about the Z axis to accommodate 48 movements.

As can be seen from FIGS. 44-49, the position of the fastening strips is influenced not only by the acting force experienced by the slider at that location, but also by the location of the fastening strips before and after that location. For example, the location of the fastening strips of Figure 45 is affected by the location of the fastening strips of Figures 44 and 46.

The extent of the effect that the location of the fastening strip from one location has on the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. In another example, the rigid material of the fastening strip is more effective elsewhere than when the material is relatively soft.

In FIG. 46, as the slider continues in the closing direction 980 along the fastening strip as shown in FIG. 37, the slider causes the fastening strip to move in the Z direction as shown in FIG. Axes 864 bring them closer together. In FIG. 46,
The upper surface 936 and the inner surface 920 are closer to each other than in FIG.
The distance is 964, which is shorter than the distance 962 in the case of. The surfaces 920, 936 exert a force on the fastening strips, causing the fastening strips to move closer together in the Z axis 864. The webs 840 and 850 are shorter than the distance 963 in FIG.
Only 65 are apart. In addition, the bases 838, 848 of FIG. 46, compared to FIG. 45, engage so that the hooks pass through each other and the fastening strips close.
Bend more. At some position, the distance between the surfaces 940,948 is the base 838,8.
Longer to accommodate 48 bends. In particular, the surfaces 940 and 948 are the base 838.
, 848 at an angle to the Z-axis 864 to accommodate the movement. Further, the hook portions 842 and 852 are bent.

In FIG. 47, as the slider continues to move in the closing direction 980 along the fastening strip in the closing direction 980 as shown in FIG. 37, the slider moves the fastening strip as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 864. In FIG. 47, the upper surface 936 and the inner surface 920 are closer to each other than in FIG. 46, but separated by a distance 966 which is shorter than the distance 964 in the case of FIG. surface
920 and 936 apply force to the tightening strips to force the tightening strips into Z axis 864.
Then move them so that they approach each other. Webs 840 and 850 are separated by a distance 967, which is less than distance 965 in FIG. Furthermore, the bases 838 and 848 of FIG. 47 are the same as those of FIG.
Bend more than 6 The distance between surfaces 940 and 948 is longer to accommodate the bends in bases 838 and 848. In particular, surfaces 940 and 948 have an angle with respect to Z axis 864 to accommodate the movement of bases 838 and 848. Furthermore, the hook part 842
852 bends and continues.

In FIG. 48, as the slider continues to move in the closing direction 980 along the fastening strip as shown in FIG. 37, the slider moves the fastening strip as shown in FIG. Then, keep moving them so that they approach each other on the Z axis 864. In FIG. 48, the upper surface 936 and the inner surface 920 are closer than in the case of FIG. 47, but separated by a distance 968 which is shorter than the distance 966 in the case of FIG. surface
920 and 936 apply force to the tightening strips to force the tightening strips into Z axis 864.
Then move them so that they approach each other. Web 840 and 850 are the distances in the case of FIG.
Only the distance 969, which is smaller than 967, is separated. Furthermore, the bases 838 and 848 of FIG. 48 are the same as those of FIG.
Bend more than 7 The distance between surfaces 940 and 948 is longer to accommodate the bends in bases 838 and 848. In particular, surfaces 940 and 948 have an angle with respect to Z axis 864 to accommodate the movement of bases 838 and 848. Furthermore, the hook part 842
852 bends and continues.

With reference to FIG. 49, the slider moves along the fastening strips in the direction of closure 980.
Continuing to move to, the slider will move on the Z axis 864, as shown in FIG.
Continue moving the fastening strips relative to each other so that they are closer together. As can be seen in FIG. 49, the fastening strips 830, 831 are closed. Especially the web 840
, 850 are closed and the hooks 842, 852 engage each other. Further, the hooks engage the hooks 858,859. Surfaces 920 and 936 are shown in FIG.
9 are closer to each other, but are separated by a distance 970, which is shorter than the distance 968 in the case of FIG. The surfaces 920, 936 apply a force to the fastening strips, causing the fastening strips to move closer together in the Z-axis 864. Web 840 and 850 are shown in Figure 3.
Distances 971 closer to each other than in the case of 5, but smaller than the distance 969 in the case of FIG.
Only apart. Furthermore, the bases 1038 and 1048 do not bend and return to their original flexible positions. Therefore, as shown in FIG. 49, the fastening strips 830, 831 are closed prior to exiting the slider.

The closure closure release of the fastening strips 830, 831 in FIGS. 44-49 is done by following these figures in the opposite direction. Therefore, the release of the closure starts in FIG.
It is shown by tracing backwards towards 4. The slider 832 facilitates release of the closure of the fastening strips 830, 831 by moving the fastening strips away from each other in the direction of the Z axis 864 and disengaging the web. Figure 3
7, the slider 832 moves in the closing release direction 981 and the fastening strips 830, 831 enter the slider 832 as shown in FIG.
As can be seen in FIG. 49, the fastening strips 830, 831 have
Once inside 832, it will be closed. Surfaces 925 and 930 are separated by a distance of 974, webs 840 and 8
50 is separated by a distance of 971.

In FIG. 48, as the slider moves along the fastening strip in the direction 981 of releasing the closure, the slider moves the fastening strip at the Z-axis 864, as shown in FIG. Move them away from each other. As shown in FIG. 48, surfaces 925 and 930 are separated by a distance 972 that is shorter than distance 974 in the case of FIG. The surfaces 925, 930 move the fastening strips away from each other in the Z-axis 864 due to the reduced distance. In addition, the bases 838, 848 bend so that the hooks pass through each other and are released when the closure of the fastening strip is released. The distance between the surfaces 940,948 is longer to accommodate the bends in the bases 838,848. In particular, the surfaces 940, 948 are at an angle with respect to the Z axis 864 to accommodate the movement of the bases 838, 848. Further, the hook portions 842 and 852 are bent.

Further, as described above, the position of the tightening strip is affected not only by the acting force received by the slider at the special place but also by the position of the tightening strip before and after the special place.

As can be seen from FIG. 47, as the slider continues to move along the fastening strip in the direction of unclosure 981 as shown in FIG. 37, the slider causes the fastening strip to move to FIG. On the Z axis 864, continue to move away from each other as shown. As can be seen in FIG. 47, the surfaces 925 and 930 are shown in FIG.
The distance is 978, which is shorter than the distance of 976 in the case of. The surfaces 925, 930 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z-axis 864. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 840 and 850 have a distance of 969 in the case of FIG.
Only 967 longer distances apart. In addition, the bases 838 and 848 continue to bend so that the hooks pass through each other and are disengaged. At some location, the distance between surfaces 940, 948 is longer to accommodate the bending of bases 828, 848. In particular, the surfaces 940, 948 are at an angle with respect to the Z axis 864 to accommodate the movement of the bases 838, 848. Furthermore, the hook portions 842 and 852 bend and continue.

As can be seen in FIG. 46, as the slider continues to move in the unclosure direction 981 along the fastening strip, as shown in FIG. 37, the slider moves the fastening strip in FIG. On the Z axis 864, continue to move away from each other as shown. As can be seen from FIG. 46, the surfaces 925 and 930 are shown in FIG.
The distance 980 is shorter than the distance 972 in the case of. The surfaces 925, 930 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z-axis 864. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 840 and 850 have a distance of 967 in the case of FIG.
Only 965 longer distances apart. In addition, the webs 840 and 850 continue to bend so that the hooks pass through each other. At some location, the distance between surfaces 940, 948 is longer to accommodate the bending of bases 828, 848. In particular, the surfaces 940, 948 are at an angle with respect to the Z axis 864 to accommodate the movement of the bases 838, 848. Furthermore, the hook portions 842 and 852 bend and continue.

As can be seen in FIG. 45, as the slider continues to move along the fastening strip in the direction of unclosure 981 as shown in FIG. 37, the slider causes the fastening strip to move to FIG. On the Z axis 864, continue to move away from each other as shown. As can be seen from FIG. 45, the surfaces 925 and 930 are shown in FIG.
The distance 982 is shorter than the distance 980 in the case of. The surfaces 925, 930 apply shear forces to the fastening strips, causing the fastening strips to move away from each other in the Z-axis 864. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 840 and 850 have a distance of 965 in the case of FIG.
Longer distance than 763 only. In addition, the webs 840 and 850 continue to bend so that the hooks pass through each other. At some location, the distance between surfaces 940, 948 is longer to accommodate the bending of bases 828, 848. In particular, the surfaces 940, 948 are at an angle with respect to the Z axis 864 to accommodate the movement of the bases 838, 848. Furthermore, the hook portions 842 and 852 bend and continue.

As can be seen in FIG. 44, as the slider continues to move along the fastening strip in the direction of unclosure 981, the slider pulls the fastening strip on FIG.
Continue moving the Z-axis 864 away from each other, as shown in FIG. As can be seen in FIG. 44, the fastening strips 830, 831 or webs 840, 850
Is closed. The surfaces 925 and 930 have a distance 9 shorter than the distance 982 in the case of FIG.
Only 84 are apart. Surfaces 925 and 930 apply shear forces to the fastening strips,
The tightening strips are moved apart from each other on the Z axis 864. The fastening strips separate due to the shearing action between the fastening strips. Therefore, the webs 840 and 850 are separated by a distance 959 which is longer than the distance 963 in the case of FIG. Further, the closure of the hooks 842 and 852 in FIG. 44 is released. Furthermore, the bases 937 and 948 do not bend and return to their original flexible position. As shown in FIG. 44, the closure of the fastening strips 830, 831 is released as the fastening strip exits the slider 832.

As mentioned above, the closure device can also have other features. For example, the closure device may have a notch near the seam to aid in a leakproof seal. The slider may also include an additional seal at the slot. The closure device may also have end stops. Further, the closure device may have a configuration for a home or parking position. In addition, the closure device may include other arrangements, such as slits or other means, for receiving the slider at the end of the fastening strip.

50-62 illustrate another embodiment of the invention. This embodiment closes and uncloses in the Z-axis by using the same shearing action as the other embodiments. Further, this embodiment rotates and bends one of the fastening strips during closure and unclosure. The fastening strip comprises two web and hook parts. The hook portions engage continuously. Closing the fastening strip and releasing it may be done manually, and sliders may be used to facilitate closing the fastening strip and releasing it.

50-62 illustrate another embodiment of the invention. This embodiment closes and uncloses in the Z-axis by using the same shearing action as the other embodiments. Further, this embodiment rotates and bends one of the fastening strips during closure and unclosure. The fastening strip includes two web and hook portions. The hook portions engage continuously. Closing and unclosure of the fastening strips may be done manually, and sliders may be used to facilitate closure and unclosure.

FIG. 50 shows a top view of the closure device. The closure device includes first and second fastening strips 1030, 1031 and a slider 1032. Figure 5
As shown in FIG. 1, the first fastening strip 1031 includes a first closure element 1034. The second fastening strip 1030 includes a first closure element 10
Includes a second closure element 1036 for engaging 34.

The first closure element 1034 includes a base portion 1038 and a web 1040 extending from the base portion 1038. The first web 1040 includes hook portions 1042 extending from the web 1040. Third web 1041 extends from base portion 1038, which web portion 1041 includes a third hook portion 1044.

The second closure element 1036 includes a base portion 1048 and a web 1050 extending from the base portion 1048. The web 1050 includes a second hook portion 1052 extending from the web 1050. The second hook portion 1052 engages the first hook portion 1042. Fourth web 1051 extends from base portion 1048. Fourth web 1051 includes a fourth hook portion 1045 that engages third hook 1044.

As shown in FIGS. 50-51, the closure device and fastening strips have an X axis 1060, a Y axis 1062 and a Z axis 1064. The X axis 1060 is the vertical axis of the closure device, the Y axis 1062 is the horizontal axis perpendicular to the X axis 1060, and the Z axis 1064 is
It is a vertical axis perpendicular to the X axis 1060 and the Y axis 1062.

As shown in FIGS. 52-56, slider 1032 includes a top portion 1070, a first side portion 1074, a second side portion 1076, a bottom portion 1078, and a slot 1080. As shown in FIG. 50, the slider 1032 has a first end 1084 and a second end 1086.

As shown in FIGS. 52 and 53, the upper portion 1070 has an inner surface 1120 and an outer surface 1122. The inner surface 1120 includes an offset portion 1124 that includes an upper surface 1125 and an offset lateral surface 1126. Offset portion 1124, second end 10
Starting at 86, slopes toward the first end 1084.

The bottom portion 1078 includes an inner surface 1130 and an outer surface 1132. The inner surface 1130 is
It includes an offset portion 1134 that includes an upper surface 1136 and an offset lateral surface 1138.
Offset portion 1134 begins at second end 1086 and slopes toward first end 1084.

The first lateral portion 1074 has an inner surface 1140 and an outer surface 1142. The second lateral portion 1076 has an inner surface 1148 and an outer surface 1150. Bottom part 1078 is the outer surface
It has a slot 1080 extending from 1132 to the inner surface 1130. In addition, the slot extends from the slider first end 1084 to the second end 1086. The slot has a width that is substantially the same as the width of the slider from the first end 1084 to the second end 1086.

The slider may be of unitary construction and may consist of several parts assembled in various ways.

57-62 show closure of the closure device and release of that closure. Figure 5
Looking at 7-62 in the order of the drawing numbers, Figures 57-64 show closure of the fastening strips. Looking at FIGS. 57-62 in reverse order from the drawing number (ie, looking from FIG. 62 to FIG. 57), FIGS. 57-62 show the closure strip closure release.

Closure of the fastening strip is described, and release of closure of the fastening strip is described. The slider 1032 facilitates closure of the fastening strips 1030, 1031 by moving the fastening strips 1030, 1031 relative to each other in the shear direction, ie, the Z direction, and engaging the web. As shown in FIG. 50, the slider 1032 has moved in the closing direction 1180 and the fastening strips 1030, 1031 have shown in FIG.
Enter slider 1032 as shown in 7. As shown in FIG. 57, the fastening strips 1030, 1031 are unclosed and the web 1040 and web 1050 are separated by a distance 1159. Further, the upper surface 1136 of the bottom portion and the inner surface 1120 of the top portion are separated by a distance 1160. Furthermore, surface 1140 is Z
Has an angle with respect to axis 1064. The surface 1140 rotates the fastening strip 1031. Prior to entering slider 1032, tightening strip 1031 is substantially parallel to Z-axis 1064, as shown in FIG. Due to rotation, the base 1038 has Z axis
With respect to 1064, it has an angle 1164. The rotation starts the process of closing the hooks 1042, 1052.

In FIG. 58, when the slider is moved in the closing direction 1180 along the fastening strip as shown in FIG.
Does not change from The webs 1040 and 1050 are almost the same distance 10 as the distance 1159 in the case of FIG.
Only 66 are apart. The surfaces 1120 and 1136 are almost the same distance as the distance 1160 in the case of FIG.
Only 1167 is apart. The angles 1168 and 1169 are almost the same as the angles 1162 and 1164 in FIG. Finally, the distance between the hooks 1044, 1045, represented by the distance 1170 between the bases 1038, 1048 hooks 1044, 1045, is about the same as the distance 1165 in FIG.

57-62, the position of the fastening strip is affected not only by the acting force experienced by the slider at that location, but also by the location of the fastening strip before and after that location. For example, the location of the fastening strips in Figure 59 is affected by the location of the fastening strips in Figures 58 and 60.

The extent of the effect that the location of the fastening strip from one location has on the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. In another example, the rigid material of the fastening strip is more effective elsewhere than when the material is relatively soft.

In FIG. 59, as the slider continues along the fastening strip in the closing direction 1180, as shown in FIG. 50, the slider moves the fastening strip into the Z direction as shown in FIG. Axes 1064 are brought closer together. In FIG. 59, the upper surface 1136 and the inner surface 1120 are closer together than in the case of FIG. 58, but separated by a distance 1174 which is shorter than the distance 1167 in the case of FIG. The surfaces 1120, 1136 exert a force on the fastening strips causing the fastening strips to move closer together in the Z axis 1064. The webs 1040, 1050 are closer to each other than in the case of FIG. 58, but separated by a distance 1176 which is shorter than the distance 1166 in the case of FIG. Further, the webs 1040, 1050 including the hooks 1042, 1052 are closed. The base 1038 has an angle 1171 with respect to the Z-axis 1064 so that the hooks 1042, 1052 engage. The angle 1171 is almost the same as the angle 1169 in the case of FIG. Further, surface 1140 is shown in FIG.
Has an angle 1172 with respect to the Z-axis 1064, which is almost the same as the angle 1168 in the case of. Also,
The hooks 1044, 1045 are represented by the distance 1178 between the bases 1038, 1048 and are separated by about the same distance as the distance 1170 in FIG.

In FIG. 60, as the slider continues to move along the fastening strip in the closing direction 1180, as shown in FIG. 50, the base 1138 begins to bend and the web 1041 and hooks 1044 are removed. Move on the Y-axis 1062 as shown in. In FIG. 60, the surface 1140 has an angle 1179 with respect to the Z axis 1264 that is approximately the same as the angle 1172 of FIG. The surfaces 1140, 1148 apply a force to the fastening strip, causing it to move in the Y-axis 1062. The base 1038 has an angle of 117 in the case of FIG.
It has an angle 1182 which is almost the same as 1. The base 1038 begins to bend and the web 1041 and hook 1044 move along the Y axis 1062.

The base 1038 bends in the latter position due to the effects caused by the position of the fastening strips. In particular, the base 1038 engages the hooks 1044, 1045, and
At a position between the two bends due to the restraining force applied by the surface 1126. Base 1038
Since the hook bends, the hooks 1044 and 1045 move to approach each other, and the base 10
Only the distance represented by the distance 1184 between 38 and 1048 is separated. The distance 1184 is shorter than the distance 1178 in FIG.

In addition, the fastening strips, as shown in FIG.
Move relative to each other. The surfaces 1120, 1136 are separated by a distance 1186 which is shorter than the distance 1174 in the case of FIG. Due to the reduced distance, the surfaces 1120, 1136 apply a force to the fastening strips causing them to move relative to each other in the Z axis 1064. This movement in the Z axis 1064 helps the hooks 1044, 1045 pass through each other and close. In particular, this force causes the webs 1040 and 1050 and hooks 1042 and 1052 to move in the Z-axis.
Bend to allow movement at 1064.

In FIG. 61, as the slider continues to move in the closing direction 1180 along the fastening strip, as shown in FIG. 50, the slider moves to the base portion, as shown in FIG. Continue moving the 1038 on the Y-axis 1062. In FIG. 61,
The surface 1140 has an angle 1187 with respect to the Z axis 1064 that is smaller than the angle 1179 in the case of FIG.
With. The surfaces 1140, 1148 exert a force on the fastening strips causing the fastening strips to move closer together in the Y-axis 1062. Therefore, the base 10
38 has an angle 1188 smaller than the angle 1182 in the case of FIG. The base continues to bend as previously described, moving the web 1041 and hooks 1044 on the Y axis 1062. When the base 1038 bends, the hooks 1044, 1045 approach each other, but the bases 1038, 1048
Only the distance represented by the distance 1189 between is separated. The distance 1189 is shorter than the distance 1184 in the case of FIG.

Further, the fastening strips, as shown in FIG. 61, on the Z-axis 1064,
Move relative to each other. The surfaces 1120, 1136 are separated by a distance 1190 which is shorter than the distance 1186 in the case of FIG. Due to the reduced distance, the surfaces 1120, 1136 apply a force to the fastening strips causing them to move relative to each other in the Z axis 1064. This movement in the Z axis 1064 helps the hooks 1044, 1045 pass through each other and close. This force causes the webs 1040, 1050 and hooks 1042, 1052 to bend to allow movement in the Z axis 1064.

In FIG. 62, as the slider continues to move in the closing direction 1180 along the fastening strips as shown in FIG. 50, the slider moves to the base portion as shown in FIG. Continue moving the 1038 on the Y-axis 1062. In FIG. 62, the surface 1140 is not angled with respect to the Z axis 1064. Therefore, the base 1038 has no angle with respect to the Z axis. Further, the hooks 1044, 1045 approach and engage each other. The hooks 1044, 1045 are separated by the distance represented by the distance 1191 between the bases 1038, 1048. The distance 1191 is shorter than the distance 1198 in the case of FIG.

Further, the fastening strips, as shown in FIG. 62, at the Z-axis 1064,
Move relative to each other. The surfaces 1120, 1136 are separated by a distance 1192 which is shorter than the distance 1190 in the case of FIG. Due to the reduced distance, the surfaces 1120, 1136 apply a force to the fastening strips causing them to move relative to each other in the Z axis 1064. This movement in the Z axis 1064 helps the hooks 1044, 1045 pass through each other and close. In particular, this force causes the webs 1040 and 1050 and hooks 1042 and 1052 to move in the Z-axis.
Bend to allow movement at 1064. As shown in FIG. 62,
The fastening strips 1030, 1031 are closed before leaving the slider.

57-62, unclosure of the fastening strips 1030, 1031 is accomplished by following these figures in the opposite direction. Therefore, the release of the closure begins in FIG.
It is shown by tracing backwards towards 7. Tightening strips 1030, 10
Releasing the closure of 31 is done by separating the fastening strips from each other at the Z-axis 1064. Also, one of the fastening strips rotates and bends during the release of the closure. The engagement of the hook portion is continuously released. The slider facilitates the release of the closure of the fastening strip.

As can be seen in FIG. 50, the slider 1032 moves in the unclosing direction 1181 and the fastening strips 1030, 1031 enter the slider 1032 as shown in FIG. In FIG. 62, the fastening strips 1030, 1031 are closed as they enter the slider 1032. Surface 1140 is parallel to Z axis 1064. Therefore, the base 10
38 is also parallel to the Z axis. In addition, the hooks 1044, 1045 engage and the distance between the hooks is represented by the distance 1191 between the bases 1038, 1048.

In FIG. 61, as the slider continues to move in the unclosure direction 1180 along the fastening strips, the slider moves to the base 10 as shown in FIG.
Continue moving the 38 on the Y-axis 1062. As can be seen from FIG. 61, the surface 1140 has the Z axis 10
It has an angle of 1193 with respect to 64. The surface 1126 bends and rotates the base 1038. base
The 1038 bends and rotates about the Z-axis 1064 so that the hooks 1044, 1045 disengage and can pass through each other when the fastening strips are unclosed.
The base 1038 has an angle 1188 with respect to the Z axis 1064. The hooks 1044, 1045 are further separated than in the case of FIG. In particular, the hooks 1044, 1045 are separated by the distance at the Y-axis 1062, represented by the distance 1189 between the bases 1038, 1048.

Further, as described above, the position of the tightening strip is affected not only by the acting force received by the slider at the special place but also by the position of the tightening strip before and after the special place. For example, the location of the fastening strips of Figure 61 is affected by the location of the fastening strips of Figures 60 and 62.

In FIG. 60, as the slider continues to move in the unclosure direction 1181 along the fastening strips as shown in FIG. 50, the slider, as shown in FIG. Continue moving the base 1038 on the Y-axis 1062. As can be seen in FIG. 60, surface 1126 has an angle 1194 with respect to Z axis 1064 that is greater than angle 1193 in the case of FIG. The surface 1126 causes the base 1038 to bend and rotate as the angle and thus the distance increases. The base 1038 bends and rotates relative to each other with respect to the Z axis 1064 so that the hooks 1044, 1045 are disengaged and can be moved about the Y axis 1062 and released. The base 1038 has a Z axis 10 larger than the angle 1188 in the case of FIG.
It has an angle 1182 with respect to 64. As a result, the hooks 1044, 1045 are further separated than in the case of FIG. In particular, the hooks 1044, 1045 are separated by a distance on the Y-axis 1062 which is represented by the distance 1184 between the bases 1038, 1048 and which is greater than the distance 1189 in the case of FIG. Further, the surfaces 1125, 1130 are separated by a distance 1195.

In FIG. 59, as the slider continues to move in the unclosure direction 1181 along the fastening strip, as shown in FIG. 50, the slider, as shown in FIG. Continue moving the base 1038 on the Y-axis 1062. As can be seen in FIG. 59, surface 1140 has an angle 1172 with respect to Z-axis 1064 that is about the same as angle 1190 in the case of FIG. The base 1038 is almost the same as the angle 1182 in the case of FIG.
With an angle 1171 with respect to. However, the base 1038 no longer bends and returns to its original flexible position. As a result, the hooks 1044, 1045 are further separated than in the case of FIG.
In particular, the hooks 1044, 1045 are separated by the distance at the large Y-axis 1062, represented by the distance 1178 between the bases 1038, 1048. The distance 1178 is longer than the distance 1184 in the case of FIG.

The fastening strips also approach each other at the Z-axis 1064, as shown in FIG. In FIG. 59, the surfaces 1125 and 1130 are closer to each other than in the case of FIG. 60, but are separated by a distance 1196 which is shorter than the distance 1195 in the case of FIG. Surface 1125,
1136 applies a force to the tightening strip to move the tightening strip to the Z-axis 1064
Move to move closer to each other. Webs 1040 and 1050 are separated by a distance of 1176.

In FIG. 58, when the slider follows the fastening strip in the direction of unclosure 1181 as shown in FIG. 50, the slider causes the fastening strip to move as shown in FIG. And move them apart from each other on the Z axis 1064. As can be seen in FIG. 58, the surfaces 1125, 1130 are separated by a distance 1197 which is shorter than the distance 1196 in the case of FIG. The surfaces 1125, 1130 exert a force on the fastening strips, causing the fastening strips to move away from each other in the Z axis 1064. The fastening strips separate due to the shearing action between the fastening strips. As a result, the webs 1040 and 1050 are separated by a distance 1166 which is longer than the distance 1176 in the case of FIG. Further, the hooks 1042 and 1052 are disengaged, and the
More apart on axis 1064.

The angles 1168 and 1169 are substantially the same as the angles 1172 and 1171 in the case of FIG. Further, the distance between the hooks 1044, 1045, represented by the distance 1170 between the bases 1038, 1048, is about the same as the distance 1178 in FIG.

In FIG. 57, the position of the fastening strip is relatively unchanged from FIG. 58 as the slider continues to move along the fastening strip in the direction of unclosure 1181 as shown in FIG. . Webs 1040 and 1050 are separated by a distance 1159, which is approximately the same as distance 1166 in the case of FIG. The surfaces 1120 and 1136 are the distance 1197 in the case of FIG.
Are about the same distance apart. Angles 1162 and 1164 are angles 1168 in the case of FIG.
, 1169 is almost the same. Finally, the distance between the hooks 1044, 1045, represented by the distance 1165 between the bases 1038, 1048, is about the same as the distance 1170 in the case of FIG. As shown in FIG. 57, the closure of the fastening strips 1030, 1031 is released as the fastening strip exits the slider 1032.

As mentioned above, the closure device can also have other features. For example, the closure device may have a notch near the seam to aid in a leakproof seal. The slider may also include an additional seal at the slot. The closure device may also have end stops. Further, the closure device may have a configuration for a home or parking position. In addition, the closure device may include other arrangements, such as slits or other means, for receiving the slider at the end of the fastening strip.

63-72 illustrate another embodiment of the invention. This embodiment closes and uncloses in the Z-axis by using the same shearing action as the other embodiments. In addition, this embodiment has a locking feature that helps prevent accidental release of the closure of the closure device. In particular, the fastening strips prevent the closure device from unclosing by inhibiting movement in the Z axis until the locking function is released. The locking feature includes a mating portion that is substantially released in the Y axis. This release is substantially 90 degrees relative to the release of the closure device. Therefore, the inadvertent force employed on the Z axis does not allow the closure device to be released. This embodiment achieves the locking function by moving or pivoting the engaging portion in the Y-axis to unlock the fastening strip. The closure of the fastening strips can then be released by moving the fastening strips relative to each other in the Z-axis or in the shear direction. The fastening strips may be manually operated and sliders may be used to facilitate engagement and disengagement of the locking feature, closing and releasing the fastening strips.

FIG. 63 shows a plan view of the closure device. The closure device includes first and second fastening strips 1230, 1231 and a slider 1232. Figure 6
As shown in FIG. 4, the first fastening strip 1231 comprises a first closure element 1234. The second fastening strip 1230 is fitted to the first closure element 12
Includes a second closure element 1236 for engaging 34.

The first closure element 1234 includes a base portion 1238 and a web 1240 extending from the base portion 1238. Web 1240 includes a hook portion 1242 extending from web 1240. The second web 1241 extends from the base portion 1238, which web portion 1241 includes a first hook portion 1244.

The second closure element 1236 includes a base portion 1248 and a web 1250 extending from the base portion 1248. Web 1250 includes a hook portion 1252 extending from web 1250. A second web 1251 extends from the base portion 1248. The second web 1251 includes a fourth hook portion 1245 that engages the first hook 1244.

As shown in FIGS. 63-64, the closure device and fastening strips have an X axis 1260, a Y axis 1262 and a Z axis 1264. The X axis 1260 is the vertical axis of the closure device, the Y axis 1262 is the horizontal axis perpendicular to the X axis 1260, and the Z axis 1264 is
It is a vertical axis perpendicular to the X axis 1260 and the Y axis 1262.

As shown in FIGS. 56-66, the slider 1232 includes a top portion 1270, a first side portion 1274, a second side portion 1276, a bottom portion 1278, and a slot 1280. As shown in FIG. 63, the slider 1232 has a first end 1284 and a second end 1286.

As shown in FIGS. 65 and 66, the upper portion 1270 has an inner surface 1320 and an outer surface 1322. Inner surface 1320 includes an offset portion 1324 that includes an upper surface 1325 and an offset lateral surface 1326. Offset portion 1324, second end 12
Starting at 86, slopes toward the first end 1284.

The bottom portion 1278 includes an inner surface 1330 and an outer surface 1332. Inner surface 1330 is
It includes an offset portion 34 that includes an upper surface 1336 and an offset lateral surface 1338. Offset portion 1334 begins at second end 1286 and slopes toward first end 1284.

The first lateral portion 1274 has an inner surface 1340 and an outer surface 1342. The second lateral portion 1276 has an inner surface 1348 and an outer surface 1350. Bottom part 1278 is the outer surface
It has a slot 1280 extending from 1332 to the inner surface 1330. In addition, the slot extends from the first end 1284 of the slider to the second end 1286. The slot has a width substantially the same as the width of the slider from the first end 1284 to the second end 1286.

The slider may be of unitary construction and may consist of several parts assembled in various ways.

67-72 show closure of the closure device and release of that closure. Figure 6
Looking at 7-72 in the order of the figure numbers, Figures 67-72 show closure of the fastening strips. Looking at FIGS. 67-72 in reverse order from the drawing number (ie, from FIG. 72 to FIG. 57), FIGS. 67-72 show the closure strip closure release.

Closure of the fastening strip is described, and release of closure of the fastening strip is described. The slider 1232 facilitates closing of the fastening strips 1230, 1231 by moving the fastening strips 1230, 1231 relative to each other in the shear direction, ie the Z direction, and engaging the web. The side slider also facilitates engagement of the engaging portion. As shown in FIG. 63, the slider 1232 has a closing direction.
Moving to 1380, the fastening strips 1230, 1231 are, as shown in FIG. 67,
Enter the slider 1232. 67, the fastening strips 1230, 1231 are unclosed and the webs 1240 and 1250 are separated by a distance 1359. Further, the upper surface 1330 of the bottom portion and the inner surface 1320 of the top portion are separated by a distance 1360. Further, the surfaces 1340, 1348 are separated by a distance 136 and the bases 1238, 1248 are separated by a distance 1362.

In FIG. 68, if the slider continues to move in the closing direction 1380 along the fastening strips as shown in FIG. 63, the slider will move to the Y-axis as shown in FIG. At 1262, continue to move the tightening strips together so that they are closer together. As shown in FIG. 68, tightening strips 1230, 1231
Is closed. However, surface 1340 and surface 1348 are closer to each other than in the case of FIG. 67, but separated by a distance 1363, which is shorter than distance 1361 in the case of FIG. The reduced distance causes surface 1340 and surface 1348 to move the fastening strips toward each other in the direction of Y-axis 1262. Therefore, the webs 1238, 1248 are separated by a distance 1364 which is shorter than the distance 1362 in the case of FIG.
Surface 1326 has an angle 1367 with respect to Z axis 1264. Surface 1326 bends and rotates a portion of the fastening strip. In particular, a portion 1249 of the base 1248 and an engaging portion 1244
, 1245 can pass through each other and bend and rotate about the Z axis 1264 so that they can engage when the fastening strips are closed. This portion 1249 has an angle 1368 with respect to the Z axis 1264. Further, the surfaces 1320 and 1330 are separated by a distance 1365 which is substantially the same as the distance 1360 in the case of FIG. Therefore, the webs 1240 and 1250 are separated by a distance 1366 which is substantially the same as the distance 1359 in the case of FIG.

In FIGS. 67-72, the position of the fastening strip is affected not only by the acting force experienced by the slider at that location, but also by the location of the fastening strip before and after that location. For example, the location of the fastening strips in Figure 68 is affected by the location of the fastening strips in Figures 67 and 69.

The degree of effect that the location of the fastening strip from one location has on the location of the fastening strip at another location depends on several factors, such as the construction of the fastening strip, the material from which the fastening strip is made. For example, a relatively thick fastening strip is more effective elsewhere than a relatively thin fastening strip. In another example, the rigid material of the fastening strip is more effective elsewhere than when the material is relatively soft.

In FIG. 69, when the slider continues in the closing direction 1380 along the fastening strip as shown in FIG. 63, the slider moves the fastening strip into the Z direction as shown in FIG. Axis 1264, close to each other. 69, surface 1320 and surface 1330 are closer to each other than in the case of FIG. 68, but are separated by a distance 1374 which is shorter than the distance 1365 in the case of FIG. The surfaces 1320, 1330 exert a force on the fastening strips causing the fastening strips to move closer together in the Z-axis 1264. The webs 1240 and 1250 are closer to each other than in the case of FIG. 68, but are separated by a distance 1376 which is shorter than the distance 1366 in the case of FIG. Web 12
40 and 1250 are closed. The surface 1326 has an angle 1378 with respect to the Z axis 1264. This surface
1326 keeps the fastening strip bent or rotated. In particular, the base portion 1249 has an angle 1379 with respect to the Z-axis 1264 so that the engagement portions 1244 can pass through each other and engage when the fastening strips are closed. The angle 1379 is almost the same as the angle 1367 in the case of FIG. Further, the surface 1349 has an angle 1382 with respect to the Z axis 1264.

In FIG. 70, as the slider continues to move along the fastening strip in the closing direction 1380, as shown in FIG. 63, the slider moves the portion 1249 into FIG.
Move on Y-axis 1262 as shown at 0. In FIG. 70, the surface 1340 is
It has an angle 1383 with respect to the Z axis 1264 that is smaller than the angle 1382 in FIG. Surface 1340,134
9 applies a force to the fastening strips and causes the fastening strips to move closer to each other at the Y-axis 1262. Therefore, the portion 1249 is the angle in the case of FIG.
With an angle 1384 less than 1379. Further, the engaging portions 1244 and 1245 are closer to each other than in the case of FIG.

In FIG. 71, as the slider continues to move in the closing direction 1380 along the fastening strips as shown in FIG. 63, the slider moves to the base portion as shown in FIG. Continue moving 1249 on Y-axis 1262. In FIG. 71,
The surface 1349 has an angle 1384 with respect to the Z axis 1264 that is smaller than the angle 1383 in the case of FIG.
With. The surfaces 1340, 1349 exert a force on the fastening strips, causing the fastening strips to move closer together in the Y axis 1262. Therefore, part 1249
Has an angle 1385 smaller than the angle 1384 in the case of FIG. Further, the engaging portion 12
44 and 1245 are closer to each other than in the case of FIG.

In FIG. 72, as the slider continues to move in the closing direction 1380 along the fastening strip as shown in FIG. 63, the slider moves to the base portion as shown in FIG. Continue moving 1249 on Y-axis 1262. In FIG. 72,
Surface 1349 no longer has an angle with respect to Z axis 1264. Therefore, the part 1249 is Z
It has no angle with respect to the axis. Further, the engaging portions 1244, 1245 engage. As shown in Figure 72, the fastening strips 1230, 1231 are closed prior to exiting the slider.

67-72, unclosure of the fastening strips 1230, 1231 is done by following these figures in reverse. Therefore, the release of the closure starts in FIG.
It is shown by tracing backwards towards 7. The slider 1232 facilitates the release of the closure of the fastening strips 1230, 1231 by moving the fastening strips in the Z-axis 1264 away from each other and disengaging the web. The slider also facilitates disengagement of the engagement portion. As can be seen in FIG. 63, the slider 1232 has moved in the closing release direction 1381 and the fastening strips 1230, 12
31 enters the slider 1232 as shown in FIG. As can be seen in FIG. 72, the fastening strips 1230, 1231 are closed as they enter the slider 1232. Surface 1349 is parallel to Z axis 1264. Therefore, the portion 1249 is also parallel to the Z axis. Further, the engaging portions 1244, 1245 engage.

In FIG. 71, as the slider continues to move in the unclosure direction 1381 along the fastening strip, the slider will move to a portion 1249, as shown in FIG.
Keep moving with Y-axis 1262. As can be seen from FIG. 71, the surface 1326 has a Z axis 1264.
With an angle of 1391. Surface 1326 causes portion 1249 to bend and rotate. part
The 1249s bend and rotate about the Z axis 1264 so that the engaging portions can be disengaged and pass through one another when the fastening strips are unclosed. Portion 1249 has an angle 1385 with respect to Z axis 1264. The engaging portions 1244, 1245 are further apart than in the case of FIG. In particular, the engagement portions 1244, 1245 are Y axis 1262 apart and separated by a distance 1392.

Further, as described above, the position of the tightening strip is affected not only by the acting force received by the slider at the special place but also by the position of the tightening strip before and after the special place. For example, the location of the fastening strips of Figure 71 is affected by the location of the fastening strips of Figures 70 and 72.

In FIG. 70, as the slider continues to move in the unclosure direction 1381 along the fastening strip, as shown in FIG. 63, the slider, as shown in FIG. Continue moving part 1249 on Y-axis 1262. As can be seen in FIG. 70, the surface 1326 has an angle 1393 with respect to the Z axis 1264 that is greater than the angle 1391 in the case of FIG. Due to the increase in angle, and thus distance, surface 1326 is part 12
Bend 49 and rotate. Portions 1249 bend and rotate relative to each other with respect to Z axis 1264 so that the engaging portion can move about Y axis 1262 and disengage. Part 12
49 has an angle 1384 with respect to the Z axis 1264 that is greater than the angle 1385 in the case of FIG.
As a result, the engaging portions 1244, 1245 are further apart than in the case of FIG. In particular, the engaging portions 1244 and 1245 have a distance 1394 on the Y axis 1262 which is larger than the distance 1392 in the case of FIG.
Only leave.

In FIG. 69, as the slider continues to move in the unclosure direction 1381 along the fastening strip as shown in FIG. 63, the slider, as shown in FIG. Continue moving part 1249 on Y-axis 1262. As can be seen in FIG. 69, surface 1326 has an angle 1378 with respect to Z axis 1264 that is greater than angle 1393 in the case of FIG. Due to the increase in angle, and thus distance, surface 1326 is part 12
Bend 49 and rotate. Portions 1249 bend and rotate relative to each other with respect to Z axis 1264 so that the engaging portion can move about Y axis 1262 and disengage. Part 12
49 has an angle 1379 with respect to the Z axis 1264 that is larger than the angle 1384 in the case of FIG.
As a result, the engaging portions 1244, 1245 are further separated than in the case of FIG. In particular, the engaging portions 1244, 1245 are larger than the distance 1394 in the case of FIG.
Only leave.

In FIG. 68, when the slider follows the fastening strips in the direction of unclosure 1381, as shown in FIG. 63, the sliders move the fastening strips as shown in FIG. Then, move them apart from each other by Z axis 1264. As can be seen in FIG. 68, the surfaces 1325, 1336 are separated by a distance 1398 which is shorter than the distance 1397 in the case of FIG. The surfaces 1325, 1336 exert a shearing force on the fastening strips, causing the fastening strips to move away from each other in the Z axis 1264. The fastening strips separate due to the shearing action between the fastening strips.
As a result, the webs 1240 and 1250 are separated by a distance 1366, which is longer than the distance 1367 in the case of FIG.

67, as the slider continues to move along the fastening strip in the direction of unclosure 1181 as shown in FIG. 63, the slider will move the fastening strip to that shown in FIG. The Z-axis 1264 so that they move away from each other. As can be seen in FIG. 67, the surfaces 1325, 1336 are separated by a distance 1398.
The surfaces 1325, 1336 exert a shearing force on the fastening strips, causing the fastening strips to move away from each other in the Z axis 1264. The fastening strips separate due to the shearing action between the fastening strips. As a result, Web 1240, 1250
Are separated by a distance 1359, which is longer than the distance 1366 in the case of FIG.

In addition, the fastening strips 1230, 1231 are provided with Y-strips, as shown in FIG.
Axes 1262 move away from each other. The surfaces 1340, 1348 are further separated as shown in FIG. 68, separated by a distance 1361 which is longer than the distance 1363 for section 68. Due to the increased distance, the surfaces 1340 and 1348 have fastening strips with a Y-axis 1262.
And help move away from each other. Bases 1238 and 1248 are distance 1364 in FIG.
It is only a distance longer than 1362. Therefore, a web containing hooks 1242, 1252
The 1240 and 1250 are disengaged and the closure is released. Furthermore, the surface 1349 is the Z axis 1264.
There is no angle with respect to. Therefore, the portion 1249 does not have an angle with respect to the Z axis. As shown in FIG. 67, the closure of the fastening strips 1230, 1231 is
It is released when the fastening strip exits the slider 1232.

As mentioned above, the closure device can also have other features. For example, the closure device may have a notch near the seam to aid in a leakproof seal. The slider may also include an additional seal at the slot. The closure device may also have end stops. Further, the closure device may have a configuration for a home or parking position. In addition, the closure device may include other arrangements, such as slits or other means, for receiving the slider at the end of the fastening strip.

The slider can be manufactured by injection molding or other methods. The slider may be made from a thermoplastic such as nylon, polypropylene, polystyrene, acetal, reinforced acetal, polyketone, polybutylene terephthalate, high density polyethylene, polycarbonate, or ABS. The slider may be transparent, translucent, or colored.

The fastening strips may be manufactured by extrusion in a mold of suitable size as described above, but this mold is of a It is slightly larger than the desired final size. Closure device fastening strips, which should be manufactured with an appropriately uniform cross section. This not only simplifies the manufacture of the device, but also contributes to the physical flexibility of the device with the desired performance.

In general, the closure elements of the present invention can be made from thermoplastics such as, for example, polyethylene, polypropylene, nylon®, or the like, or combinations thereof. Thus, resins such as high density polyethylene, medium density polyethylene and low density polyethylene, or mixtures of resins can be used to prepare the novel fasteners of the present invention. Suitably, the closure element is made from low density polyethylene. The choice of thermoplastic is related to the closure design, its Young's modulus, and the desired elasticity and flexibility that are interrelated to obtain the claimed functionality of the closure.

When the fastener of the present invention is used in a sealable bag, the fastener and the film forming the bag body can be made of a heat sealable material. The bag can therefore be made economically by using the above-mentioned type of thermoplastic for the formation of the closure element and heat sealing the above-mentioned element to form the bag. Suitably, the bag is a high temperature, low density polyethylene,
Made from a mixture of linear and low density polyethylene.

The closure elements of the present invention can be manufactured by extrusion or other known methods. The closure device may be manufactured as individual fastening strips for later attachment to the film, or the fastening strips may be manufactured integrally with the film. Moreover, the closure element may be manufactured with or without one or both flange portions of the closure element, by intentional use or by means of a planned additional manufacturing operation.

In general, the closure device of the present invention may be manufactured in various forms suitable for intended use. In the present invention, the closure device may in fact be made integral with the side wall of the container or connected to the container by the use of known methods.
For example, a thermoelectric device may be applied to the film in contact with the flange portion of the closure element, or the thermoelectric device may be applied to a film in contact with the base portion of the closure element that does not have a flange portion, and the transfer of heat through the film may result in Melting may occur at the interface between the film and the base portion of the closure element. The thermoelectric device may be a heated rotating disk, a mobile heater band, a resistive heating slide wire, or the like. Bonding between the film and the closure element can be done by hot melt resin adhesive, hot air jet to the interface, ultrasonic heating, or other known methods. Joining the closure element to the film material can be done before or after the film is folded into a U to form a bag. In either case, such a joint is made prior to sealing the rim of the bag by conventional thermal cutting. Also, the male and female closure elements are located on opposite sides of the film. Such an embodiment would be suitable for wrapping objects or for grouping objects such as wires. The male and female closure elements on the film should be parallel to each other, which is a matter of usage.

Accordingly, the present invention provides a closure device that overcomes the disadvantages inherent in the prior art.

While particular embodiments of the present invention have been shown, it will be understood by those skilled in the art that the present invention is not limited to these, as various modifications can be made, especially based on the above teachings. . Therefore, the scope of the claims includes modifications including the characteristics of the essential characteristics of these improvements made within the spirit and scope of the present invention. The documents and applications cited here are incorporated herein by reference.

[Brief description of drawings]

FIG. 1 is a perspective view of the container of the present invention in the case of a plastic bag.

[Fig. 2]   FIG. 2 is a partially enlarged plan view of the container of FIG.

3 is a partial enlarged cross-sectional view of the fastening strip taken along the line 2-2 of FIG. 2 excluding the side wall of the bag.

FIG. 4 is a cross-sectional view of the slider taken along line 2-2 of FIG. 2 without the fastening strips.

5 is a cross-sectional view of the slider taken along line 5-5 of FIG. 2 without the fastening strips.

[Figure 6]   FIG. 6 is a sectional view taken along the line 6-6 of FIG.

[Figure 7]   FIG. 7 is a sectional view taken along line 7-7 of FIG.

[Figure 8]   FIG. 8 is a sectional view taken along line 8-8 of FIG.

[Figure 9]   FIG. 9 is a sectional view taken along the line 9-9 in FIG.

10 is a partially enlarged plan view of the container shown in FIG. 1 with the slider in the end position and the fastening strips in the closed position.

FIG. 11   11 is a sectional view taken along the line 11-11 in FIG.

[Fig. 12]   12 is a sectional view taken along line 12-12 of FIG.

[Fig. 13]   FIG. 13 is a sectional view taken along line 13-13 of FIG.

FIG. 14   14 is a cross-sectional view taken along the line 14-14 of FIG.

FIG. 15   15A is a cross-sectional view of another embodiment, and FIG. 15B is a line of FIG. 15A. 15B is a sectional view taken along line 15B-15B, and FIG. 15C is a sectional view of another embodiment.

FIG. 16   FIG. 16 is a plan view of another embodiment of the present invention.

FIG. 17 is a line 17-1 of FIG. 16 of the fastening strip without the side wall of the bag.
FIG. 7 is a partial enlarged cross-sectional view along 7;

FIG. 18 is a view of the slider, line 18-18 of FIG. 16, without a fastening strip.
FIG.

FIG. 19 is a view of the slider without the fastening strip, line 19-19 of FIG.
FIG.

FIG. 20   FIG. 20 is a sectional view taken along the line 20-20 of FIG.

FIG. 21   21 is a sectional view taken along the line 21-21 in FIG.

FIG. 22   22 is a cross-sectional view taken along the line 22-22 of FIG.

FIG. 23   23 is a sectional view taken along the line 23-23 of FIG.

FIG. 24   24 is a cross-sectional view taken along the line 24-24 of FIG.

FIG. 25   FIG. 25 is a partial plan view of another embodiment of the present invention.

26 is a view of line 26-2 of FIG. 25 of the fastening strips without the side walls of the bag.
FIG. 6 is a partial enlarged cross-sectional view of FIG.

FIG. 27 shows the slider line 27-27 of FIG. 25 without the fastening strips.
FIG.

Figure 28 is a view of the slider, line 28-28 of Figure 25, without the fastening strips.
FIG.

FIG. 29   29 is a cross-sectional view taken along the line 29-29 of FIG.

FIG. 30   FIG. 30 is a sectional view taken along the line 30-30 of FIG.

FIG. 31   FIG. 31 is a sectional view taken along the line 31-31 of FIG.

FIG. 32   32 is a cross-sectional view of FIG. 25 taken along the line 32-32.

FIG. 33   33 is a cross-sectional view taken along the line 33-33 of FIG.

FIG. 34   34 is a cross-sectional view of FIG. 25 taken along the line 34-34.

FIG. 35   FIG. 35 is a sectional view taken along the line 35-35 of FIG.

FIG. 36   FIG. 36 is a cross-sectional view taken along the line 36-36 of FIG.

FIG. 37   FIG. 37 is a partial plan view of another embodiment of the present invention.

Figure 38 is a line 38-3 of Figure 37 of a fastening strip without side walls of the bag.
FIG. 8 is a partially enlarged cross-sectional view along line 8.

FIG. 28 shows line 39-39 of FIG. 37 of the slider without tightening strips.
FIG.

Figure 40 is a line 40-40 of Figure 37 of the slider without the fastening strips.
FIG.

FIG. 41   29 is a cross-sectional view taken along the line 41-41 of FIG.

FIG. 42   FIG. 30 is a cross-sectional view taken along the line 42-42 of FIG.

FIG. 43   FIG. 31 is a sectional view taken along the line 43-43 of FIG.

FIG. 44   32 is a cross-sectional view of FIG. 37 taken along the line 44-44.

FIG. 45   33 is a sectional view taken along the line 45-45 of FIG.

FIG. 46   34 is a cross-sectional view of FIG. 37 taken along the line 46-46.

FIG. 47   FIG. 35 is a cross-sectional view taken along the line 47-47 of FIG.

FIG. 48   36 is a cross-sectional view of FIG. 37 taken along the line 48-48.

FIG. 49   FIG. 37 is a sectional view taken along the line 49-49 in FIG.

FIG. 50   FIG. 50 is a partial plan view of another embodiment of the present invention.

51 is a line 51-5 of FIG. 50 of the fastening strip without the side wall of the bag.
It is the partial expanded sectional view which followed 1.

52 is a view of the slider, line 52-52 of FIG. 50, without the fastening strips;
It is the fragmentary sectional view which followed.

53 is a line 53-53 of FIG. 50 of the slider without the fastening strips.
It is the fragmentary sectional view which followed.

FIG. 54   54 is a plan view of the illustrated slider of FIGS. 52 and 53.

FIG. 55   FIG. 55 is a partial cross-sectional view taken along the line 55-55 of FIG.

FIG. 56   FIG. 56 is a partial cross-sectional view taken along the line 56-56 of FIG.

FIG. 57   57 is a partial cross-sectional view taken along the line 57-57 of FIG.

FIG. 58   58 is a partial cross-sectional view taken along the line 58-58 of FIG.

FIG. 59   FIG. 59 is a partial cross-sectional view taken along the line 59-59 of FIG.

FIG. 60   FIG. 60 is a partial cross-sectional view taken along the line 60-60 of FIG.

FIG. 61   61 is a partial cross-sectional view taken along the line 61-61 of FIG.

FIG. 62   62 is a partial cross-sectional view taken along the line 62-62 of FIG.

FIG. 63   FIG. 63 is a plan view of another embodiment of the present invention.

64 is a line 64-6 of FIG. 63 of the fastening strip without the side walls of the bag.
FIG. 4 is an enlarged sectional view taken along line 4 of FIG.

65 is a view of the slider without the fastening strip, line 65-65 of FIG. 63;
FIG.

66 is a view of the slider, line 66-66 of FIG. 63, without the fastening strips;
FIG.

FIG. 67   67 is a partial cross-sectional view taken along line 67-67 of FIG. 63.

FIG. 68   68 is a partial cross-sectional view taken along the line 68-68 of FIG. 63.

FIG. 69   69 is a partial cross-sectional view taken along the line 69-69 of FIG. 63.

FIG. 70   70 is a partial cross-sectional view taken along the line 70-70 of FIG. 63.

FIG. 71   71 is a partial cross-sectional view taken along the line 71-71 of FIG. 63.

FIG. 72   72 is a cross-sectional view of FIG. 63 taken along the line 72-72.

─────────────────────────────────────────────────── ─── Continuation of front page (81) Designated countries EP (AT, BE, CH, CY, DE, DK, ES, FI, FR, GB, GR, IE, IT, LU, MC, NL, PT, SE ), OA (BF, BJ, CF, CG, CI, CM, GA, GN, GW, ML, MR, NE, SN, TD, TG), AP (GH, GM, KE, LS, MW, SD, SL, SZ, UG, ZW), EA (AM, AZ, BY, KG, KZ, MD, RU, TJ, TM), AL, AM, AT, AU, AZ, BA, BB, BG, BR, BY , CA, CH, CN, CU, CZ, DE, DK, EE, ES, FI, GB, GD, GE, GH, GM, HR, HU, ID, IL, IN, IS, JP , KE, KG, KP, KR, KZ, LC, LK, LR, LS, LT, LU, LV, MD, MG, MK, MN, MW, MX, NO, NZ, PL, PT, RO, RU, SD, SE, SG, SI, SK, SL, TJ, TM, TR, TT, UA, UG, US, UZ, VN, YU, ZA, ZW (72) Inventor Savikki, Alan Ef Sr. United States Beaconsfield Avenue 577, Naperville, Illinois 577 (72) Inventor Chen, Chi-hang United States Illinois 60565, Naperville, Eaton Lane 1504 F Term (reference) 3B098 AA08 AB07 BA04 BB02 CA12 CB02 3E064 AA01 BA27 BC18 EA07 HN13 HN18 HN20 [Continued summary]

Claims (90)

[Claims] 1. A closure device comprising first and second interlocking fastening strips formed to interlock over a desired length, said first and second fastening strips being slidably engaged. The fastening strip has a longitudinal X axis, the fastening strip has a lateral Y axis, the lateral Y axis is perpendicular to the longitudinal X axis, and the fastening strip is a vertical Z axis.
Axis, the vertical Z-axis is perpendicular to the longitudinal X-axis, the vertical Z-axis is perpendicular to the transverse Y-axis, and the slider is moved to a first end of the fastening strip, Facilitating closure and moving to the second end of the fastening strip facilitates release of the closure of the fastening strip, the fastening strip in the vertical Z-axis with respect to the second fastening strip with respect to the first fastening strip. Closure device, which is closed and released by moving. 2. The invention of claim 1, wherein a portion of one of the fastening strips bends during closing and unclosing of the fastening strip. 3. The invention of claim 1 wherein said first fastening strip moves in a lateral Y axis with respect to said second fastening strip during closing and unclosing of said fastening strip. 4. The first fastening strip has a first web, the first web extending from the first fastening strip, the first web extending to a first closure portion, The second fastening strip has a second web, the second web extending from the second fastening strip, the second web having the first web when the fastening strip is closed. The invention of claim 1 further including a second closure portion that engages the closure portion. 5. The first fastening strip includes a first base, the first web is attached to the first base, and the second fastening strip is
The invention of claim 4, including a second base, wherein the second web is attached to the second base. 6. The first closure portion engages the second web and the second closure portion engages the first web when the fastening strip is closed. The invention according to claim 4. 7. The invention of claim 4 wherein said first closure portion flexes during closure of said fastening strip. 8. The invention of claim 7 wherein said first web is relatively rigid during closure of said fastening strip. 9. The first closure portion includes a first portion extending from the first web in the Z-axis, a second portion extending to the second web, and a Y-axis from the first portion in the second axis. The invention of claim 4 including a second portion extending away from the fastening strip of. 10. The second closure portion comprises a third portion extending from the second web in the Z-axis, a third portion extending into the first web, and a Y-axis from the third portion in the first axis. The invention of claim 9 including a fourth portion extending away from the fastening strip. 11. A fifth portion extends from said one portion to said second fastening strip and a sixth portion extends from said third portion to said first fastening strip. The invention according to Item 9. 12. The invention of claim 4 wherein said first web bends during closure of said fastening strip. 13. The invention of claim 12 wherein said first closure portion is relatively rigid during closure of said fastening strip. 14. The first closure portion comprises a first portion extending from the first web in the Z-axis, a second portion extending into the second web, and a Y-axis from the first portion in the second axis. The invention of claim 4 including a second portion extending into the fastening strip of. 15. The second closure portion comprises a third portion extending from the second web in the Z-axis, a third portion extending to the first web, and a Y-axis from the third portion in the first axis. 15. The invention of claim 14 including a fourth portion extending into the fastening strip. 16. The second fastening strip includes a second base, the second web attached to the second base, the second base having a first recessed portion, 15. The invention of claim 14, wherein the second portion engages the recess. 17. The first fastening strip includes a first base, the first web is attached to the first base, and the first base includes a second recess. 16. The method of claim 15, wherein a fourth portion engages the recess. 18. The first web bends during closure of the fastening strip, and the first fastening strip extends during closure of the fastening strip.
5. The invention according to claim 4, wherein the invention moves in the Y axis with respect to the second fastening strip. 19. The invention of claim 18 wherein said first closure portion is relatively rigid during closure of said fastening strip. 20. The first closure portion is a Z from the first web.
A first portion extending axially into the second web, and from the first portion, Y
19. The invention of claim 18 including a second portion extending axially away from the second fastening strip. 21. The second closure portion comprises a third portion extending from the second web in the Z axis, a third portion extending into the first web, and a Y axis from the third portion, and 21. The invention of claim 20 including a fourth portion extending away from the fastening strip. 22. The invention of claim 5 wherein said first base bends during closure of said fastening strip. 23. The first web is provided during closure of the fastening strip,
23. The invention of claim 22 which is relatively rigid. 24. The invention of claim 23, wherein the first closure portion is relatively rigid during closure of the fastening strip. 25. The first closure portion comprises a first portion extending from the first web in the Z-axis, a second portion extending into the second web, and a Y-axis from the first portion in the second axis. 6. The invention of claim 5 including a second portion extending into the fastening strip of. 26. The second closure portion comprises a first portion extending from the second web in the Z-axis, a third portion extending to the first web, and a third portion in the Y-axis, 26. The invention of claim 25, including a fourth portion extending into the fastening strip. 27. The first base has a third closure portion that engages the second closure portion when the fastening strip is closed, and the second base has the fastening strip closed. 6. The invention of claim 5 having a fourth closure portion that engages the first closure portion when closed. 28. The first base has a third closure portion which engages the fourth portion of the second closure portion when the fastening strip is closed. 27. The invention of claim 26, wherein the invention has a fourth closure portion that engages the second portion of the first closure portion when the fastening strip is closed. 29. The invention of claim 5 wherein the first base rotates during closure of the fastening strip. 30. The invention of claim 29 wherein said first web bends during closure of said fastening strip. 31. The invention of claim 4 wherein said first closure portion flexes during closure of said fastening strip. 32. The first fastening strip has a third web, the third web being spaced from the first web, the first web and the third web being the third web. Extending from one base, said third web having a third closure portion, said second fastening strip having a fourth web, said fourth web being spaced from said second web. The second web and the fourth web extend from the second base, the fourth web having a fourth closure portion for engaging a third closure portion. The invention according to Item 5. 33. The first closure portion is a first hook, the third closure portion is a third hook facing the first hook, and the second closure portion is a first hook. 33. The invention of claim 32, wherein the invention is a second hook and the fourth closure portion is a fourth hook facing away from the second hook. 34. The first and second hooks include guide surfaces for guiding the first and second hooks and the third and fourth hooks.
The invention described in. 35. The third and fourth hooks include guide surfaces for guiding the third and fourth hooks and the first and second hooks.
The invention described in. 36. During closure of a fastening strip, said third portion is closed at said fourth closure portion, said first fastening strip rotating towards said second fastening strip, said first fastening strip. 33. The invention of claim 32, wherein one closure portion closes with the second closure portion. 37. The first closure portion includes a first portion extending the first web to a second web in the Z axis, and the second web to a first portion in the Z axis. 6. The invention of claim 5 including a second portion extending into the web. 38. The first fastening strip moves relative to the second fastening strip in the lateral Y-axis during closure of the fastening strip.
The invention described in. 39. The first fastening strip has a first locking portion,
The invention of claim 4, wherein the second fastening strip has a second locking portion that engages the first locking portion. 40. The first locking portion has a third web and a first engaging portion, and the second locking portion engages with a fourth web and the first engaging portion. 40. The invention according to claim 39, having a second engaging portion that mates with the second engaging portion. 41. The invention of claim 40, wherein the second engagement portion is aligned within the first engagement portion. 42. The second locking portion has a lateral Y direction during engagement of the locking portion.
40. The invention of claim 39, wherein the invention is axially movable with respect to the first locking portion. 43. The invention of claim 39, wherein the locking portions prevent the fastening strips from moving in the Z-axis relative to each other when the locking portions engage. 44. The invention of claim 42, wherein the second lock portion rotates toward the first lock portion. 45. The first locking portion engages the second locking portion after the first closure portion engages the second closure portion,
The invention according to claim 39. 46. The second locking portion is lateral Y during engagement of the locking portion.
40. The invention of claim 39, wherein the invention is axially movable with respect to the first locking portion. 47. The invention of claim 45, wherein when the locking portions engage, the locking portions prevent the fastening strips from moving in the Z-axis relative to each other. 48. The invention of claim 46, wherein the second lock portion rotates toward the first lock portion. 49. The invention of claim 1 wherein said slider has a top portion having an inner surface and a bottom portion having an inner surface. 50. The slider has a first end that corresponds to the first end of the fastening strip, and the slider has a second end that corresponds to the second end of the fastening strip. 50. The invention of claim 49, having an end. 51. A first portion of the inner surface of the top portion and a first portion of the inner surface of the bottom portion are separated by a distance and are near the first end of the slider. 51. The invention of claim 50, wherein the distance is less than a distance closer to the second end of the slider to facilitate closure of the fastening strip. 52. A second portion of the inner surface of the top portion and a second portion of the inner surface of the bottom portion are separated by a second distance, the first end of the slider. 52. The invention of claim 51, wherein the second distance closer to is greater than the second distance closer to the second end of the slider to facilitate release of closure of the fastening strip. 53. The slider has a first side portion extending from the top portion to the bottom portion and a second side portion extending from the top portion to the bottom portion, 52. The invention of claim 51, wherein the first lateral portion has an inner surface and the second lateral portion has an inner surface. 54. A first portion of the inner surface of the first lateral portion and a second portion of the inner surface of the second lateral portion are separated by a third distance, and 54. A third distance closer to the first end of the slider is less than a third distance closer to the second end of the slider to facilitate closure of the fastening strip. The invention described in. 55. The first portion of the inner surface of the upper portion of the slider is on a first surface and the first portion of the inner surface of the first lateral portion of the slider is 54. The invention of claim 53, wherein the invention is on a second surface and the second portion of the inner surface of the second lateral portion of the slider is on a third surface. 56. The invention of claim 55, wherein the second surface is substantially perpendicular to the first surface. 57. The invention of claim 55, wherein the third surface is substantially perpendicular to the first surface. 58. The invention of claim 55, wherein the second surface is substantially perpendicular to the first surface and the third surface is substantially perpendicular to the first surface. . 59. The invention of claim 50, wherein the bottom portion includes a slot. 60. The invention of claim 59, wherein the slot extends from the first end of the slider to the second end of the slider. 61. The slot has a width, the width of the slot being substantially the same from the first end of the slider to the second end of the slider. The invention described in. 62. The invention of claim 1, wherein the first fastening strip has a different collar than the second fastening strip. 63. The invention of claim 62, wherein at least a portion of one of the fastening strips is translucent. 64. The first fastening strip has a first collar, the second fastening strip has a second collar, and the fastening strip comprises:
63. The invention of claim 62, wherein the fastening strip provides a third collar when closed. 65. First and second interlocking fastening strips configured to be interlocked over a desired length, the fastening strips having a longitudinal X axis and the fastening strips having a lateral Y axis. The horizontal Y axis is perpendicular to the vertical X axis, the fastening strip has a vertical Z axis, the vertical Z axis is vertical to the vertical X axis, and the vertical Z axis is vertical to the horizontal axis Y axis. A slider for a closure device, the slider including a portion slidably engaging first and second fastening strips, the slider moving to a first end of the fastening strip. Then, facilitating the closure of the fastening strip, moving to the second end of the fastening strip, facilitating the release of the closure of the fastening strip, said slider
A slider, wherein the fastening strip acts on the fastening strip so that it is closed and released by moving the first fastening strip in the vertical Z-axis with respect to the second fastening strip. . 66. The invention of claim 65, wherein the slider has a top portion having an inner surface and a bottom portion having an inner surface. 67. The slider has a first end that corresponds to the first end of the fastening strip, and the slider has a second end that corresponds to the second end of the fastening strip. 67. The invention of claim 66, having an edge of. 68. A first portion of the inner surface of the top portion and a first portion of the inner surface of the bottom portion are separated by a distance and are near the first end of the slider. 68. The invention of claim 67, wherein the distance is less than a distance closer to the second end of the slider to facilitate closure of the fastening strip. 69. A second portion of the inner surface of the top portion and a second portion of the inner surface of the bottom portion are separated by a second distance, the first end of the slider. 69. The invention of claim 68, wherein the second distance closer to is greater than the second distance closer to the second end of the slider to facilitate release of closure of the fastening strip. 70. The slider has a first lateral portion extending from the top portion to the bottom portion and a second lateral portion extending from the top portion to the bottom portion, 69. The invention of claim 68, wherein the first lateral portion has an inner surface and the second lateral portion has an inner surface. 71. A first portion of the inner surface of the first lateral portion and a second portion of the inner surface of the second lateral portion are separated by a third distance, and 71. A third distance near the first end of the slider is less than a third distance near the second end of the slider to facilitate closure of the fastening strip. The invention described in. 72. The first portion of the inner surface of the upper portion of the slider is on a first surface and the first portion of the inner surface of the first lateral portion of the slider is 71. The invention of claim 70, wherein the invention is on a second surface and the second portion of the inner surface of the second lateral portion of the slider is on a third surface. 73. The invention of claim 72, wherein the second surface is substantially perpendicular to the first surface. 74. The invention of claim 72, wherein the third surface is substantially perpendicular to the first surface. 75. The invention of claim 72, wherein the second surface is substantially perpendicular to the first surface and the third surface is substantially perpendicular to the first surface. . 76. The invention of claim 67, wherein the bottom portion includes a slot. 77. The invention of claim 76, wherein the slot extends from the first end of the slider to the second end of the slider. 78. The slot has a width, the width of the slot being substantially the same from the first end of the slider to the second end of the slider. The invention described in. 79. A container comprising first and second sidewalls having first and second fastening strips, respectively, and a slider slidably engaging the first and second fastening strips, The first and second fastening strips are formed to be connected over a desired length, the fastening strips having a longitudinal X axis, the fastening strips having a lateral Y axis, and the lateral Y axis being Perpendicular to the longitudinal X-axis, the fastening strip has a vertical Z-axis, the vertical Z-axis is perpendicular to the longitudinal X-axis, and the vertical Z-axis is
The axis is perpendicular to the transverse Y-axis and the slider facilitates closure of the fastening strip when moved to the first end of the fastening strip and of the fastening strip when moved to the second end of the fastening strip. A container, which facilitates release of the closure, wherein the fastening strip is closed and unclosed by moving the first fastening strip with respect to the second fastening strip in the vertical Z-axis. 80. The invention of claim 79, wherein a portion of one of the fastening strips bends during closing and unclosing of the fastening strip. 81. The invention of claim 79, wherein the first fastening strip moves in a lateral Y axis with respect to the second fastening strip during closure and unclosure of the fastening strip. 82. The first fastening strip has a first web, the first web extending from the first fastening strip, the first web extending to a first closure portion, The second fastening strip has a second web, the second web extending from the second fastening strip, the second web having the first web when the fastening strip is closed. 80. The invention of claim 79, further comprising a second closure portion that engages the closure portion. 83. The first fastening strip includes a first base, the first web is attached to the first base, and the second fastening strip includes a second base. 83. The invention of claim 82, wherein a second web is attached to the second base. 84. The first closure portion engages the second web,
The second closure part is provided when the fastening strip is closed,
83. The invention of claim 82, engaging the first web. 85. A method of using a closure device, comprising: providing a first interlocking fastening strip; and providing a second interlocking fastening strip, wherein the fastening strip is longitudinal X Axis, the fastening strip has a lateral Y axis, the lateral Y axis is perpendicular to the longitudinal X axis, and the fastening strip is a vertical Z axis.
An axis, the vertical Z-axis is perpendicular to the longitudinal X-axis, the vertical Z-axis is perpendicular to the transverse Y-axis, and further slidably engaged with the first and second fastening strips. A slider for moving to the first end of the fastening strip, facilitating closing of the fastening strip, and moving to the second end of the fastening strip facilitating release of closure of the fastening strip. And a step of moving the slider, the slider being closed by moving the first fastening strip with respect to the second fastening strip in the vertical Z-axis, The closure is lifted,
By the way. 86. The invention of claim 85, wherein a portion of one of the fastening strips bends during closing and unclosing of the fastening strip. 87. The invention of claim 85, wherein the first fastening strip moves in a lateral Y axis with respect to the second fastening strip during closure and unclosure of the fastening strip. 88. The first fastening strip has a first web, the first web extending from the first fastening strip, the first web extending to a first closure portion, The second fastening strip has a second web, the second web extending from the second fastening strip, the second web having the first web when the fastening strip is closed. 86. The invention of claim 85, further comprising a second louver portion that engages the closure portion. 89. The first fastening strip includes a first base, the first web is attached to the first base, and the second fastening strip includes a second base. 89. The invention of claim 88, wherein a second web is attached to the second base. 90. The first closure portion engages the second web,
The second closure part is provided when the fastening strip is closed,
89. The invention of claim 88 which engages the first web.