阅读说明：本技术 封闭件 (Closure member ) 是由 S·塞萨雷 G·拉利耶 于 2018-05-30 设计创作，主要内容包括：一种非常耐用的改进卡扣/拧开式封闭件(22)。本发明还涉及一种包括封闭件的包装,例如与封闭件(22)组合的瓶子(20)。该封闭件包括限定出开口(36)的上壁(25)以及从上壁(25)悬垂的筒形卡扣管(30)。该管(30)包括设计成与瓶子颈部上的外螺纹(60)配合的螺纹(34)。当在制造过程中将封闭件卡扣到瓶子上时,管上的螺纹和瓶子颈部上的螺纹会彼此越过。该管包括阻力凹部(42)和引导凹部(70)。阻力凹部(42)和引导凹部(70)容纳瓶子的肩部上的施力元件并允许旋开封闭件。(An improved snap/twist closure (22) that is very durable. The invention also relates to a package comprising a closure, such as a bottle (20) in combination with a closure (22). The closure includes an upper wall (25) defining an opening (36) and a cylindrical snap tube (30) depending from the upper wall (25). The tube (30) includes threads (34) designed to mate with external threads (60) on the neck of the bottle. When the closure is snapped onto the bottle during manufacture, the threads on the tube and the threads on the neck of the bottle may pass over each other. The tube includes a resistance recess (42) and a guide recess (70). The resistance recess (42) and the guide recess (70) accommodate a force applying element on the shoulder of the bottle and allow unscrewing of the closure.)

1. A closure comprising

a. An upper wall defining an opening;

b. a cylindrical snap tube depending from said upper wall and extending axially to a bottom end;

c. the cylindrical snap tube includes at least one resistance recess at a bottom end thereof;

d. the cylindrical snap tube further comprises at least one thread on an inner wall thereof;

e. the cylindrical snap tube defining opposing first and second walls of the resistance recess;

f. the first and second drag recess walls have a gradient, wherein the gradient of one of the first and second drag recess walls is at least at one point less than the gradient of the other of the first and second recess sides at a point at the same axial height; and

g. said bottom end of said cylindrical snap tube being shaped to include a guiding recess for lowering a cylindrical snap tube thread relative to a container neck,

the closure is configured such that the guiding recess comprises a first guiding recess wall with an upward gradient and a second guiding recess wall with a downward gradient, such that in a closing rotational direction of the closure the first guiding recess wall allows the cylindrical snap tube to be axially lowered towards the container neck with the force application element and the second wall coinciding with the closure cylindrical snap tube to be raised relative to the container, and when the force application element contacts the small gradient resistance recess wall the thread maintains its axial position relative to the thread on the bottle neck to which the closure is being applied, at least until the force application element reaches a position below the second guiding recess wall.

2. The closure of claim 1, further comprising a closure cap for closing the opening, the closure cap hingedly attached to a closure base of the closure.

3. A closure as claimed in claim 1 or 2, wherein, in the direction of rotation to unscrew the closure, upon encountering the resistance recess, the force application element encounters the first guide recess wall and then the second guide recess wall.

4. A closure according to any one of the preceding claims, wherein the cylindrical snap tube thread and the container thread retain the container thread in a relative axial position above the snap tube thread when the force application element reaches a position below the first guide recess wall.

5. A closure according to any one of the preceding claims, wherein the second resistance recess wall has a lesser gradient and the lesser gradient of the second resistance recess wall is in the range of 10 degrees less to 10 degrees greater than the gradient of a side wall of the force application element of the container which side wall faces the second resistance recess wall during unscrewing of the closure, and the lesser gradient of the second resistance wall and the side wall of the force application element which side wall faces the second resistance wall have a gradient between 30 and 85 degrees.

6. A closure according to any one of claims 1 to 5, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is at least 2 mm.

7. A closure according to claim 7, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is from 2mm up to 5 mm.

8. A closure according to claim 8, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is from 2mm up to 4 mm.

9. A closure according to any one of claims 1 to 9, wherein the first guide recess wall has a gradient in the range 90 to 135 degrees.

10. A closure according to any one of claims 1 to 10, wherein the second guide recess wall has a gradient in the range 0 to 10 degrees.

11. A container comprising a combined closure and bottle, the container comprising a closure and bottle having a bottle neck and at least one force applying element,

I. the closure comprises

a) An upper wall defining an opening;

b) a cylindrical snap tube depending from the upper wall and extending axially to a bottom end,

c) the cylindrical snap tube including at least one resistance recess therein extending to the bottom end;

d) the cylindrical snap tube further comprises one or more threads on an inner wall thereof;

e) the cylindrical snap tube defining opposing first and second walls of the resistance recess;

f) the first and second resistive recess walls have a gradient, wherein the gradient of one of the first and second sides is at least at one point less than the gradient of the other of the first and second recess sides at a point at the same axial height; and

g) the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering and raising the cylindrical snap tube thread relative to the bottle neck,

the bottle neck has an external thread,

the at least one bottle force application element is adapted to be at least partially received within the resistance recess of the closure cylindrical snap tube, wherein the guide recess comprises a first wall having an upward gradient and a second wall having a downward gradient, whereby in a closure rotational direction of the closure, the first guide recess wall allows the cylindrical snap tube to be axially lowered toward the force application element and the second guide recess wall, which is coincident with the closure cylindrical snap tube, to be raised relative to the closure element, and when the force application element contacts the low gradient resistance recess wall, the snap tube internal thread and bottle neck thread maintain the bottle neck thread in a relative axial position above the snap tube thread at least until the force application element reaches a position below the second guide recess wall.

12. The container of claim 11, wherein the cylindrical snap tube thread axially passes over the bottle thread with the addition of axial force after the force application element reaches a position below the second guide recess wall.

13. The container according to claim 11 or 12,

the second resistance recess wall has a smaller gradient and the smaller gradient of the second resistance recess wall is in the range of 10 degrees smaller to 10 degrees larger than the gradient of a side wall of the force application element of the container, which side wall faces the second resistance recess wall during unscrewing of the closure, and the smaller gradient of the second resistance wall and the side wall of the force application element facing the second resistance wall have a gradient between 30 and 85 degrees.

Background

Many personal care products are sold in plastic bottles. Examples of such products are body washes and shampoos. While it is convenient for consumers to dispense body wash or hair care products from bottles, plastic bottles are often discarded after a single use and sometimes undesirably enter landfills. Although plastic bottles are sometimes recycled, transportation to a recycling facility and recycling itself consume energy. It would therefore be preferable if the package were to be reused after a single use rather than discarded.

Theoretically, while some current commercial bottles can be reused by consumers, the ease of doing so is often somewhat inadequate. For example, it may be difficult for a consumer to remove the closure sufficiently to facilitate access to the body of the bottle. This creates a significant obstacle to the goal of minimizing plastic use and handling. Accordingly, there is a need for a bottle having a closure that can be easily removed by a consumer. Furthermore, it is important that the consumer can easily secure the closure to the bottle again once the consumer refills the container.

It is of course desirable for the consumer to have easy access to the interior of the bottle, but the bottle cannot be designed so that the closure is too easily separated from the bottle. Otherwise, the product will be released from the container at an inappropriate time (e.g., during shipping). Moreover, the goal of an easily separable closure must be balanced against competing goals of cheapness in placing the closure on the bottle during manufacture and the attendant production costs.

Us patent No.8,365,933 to jack discloses a closure system comprising a snap-on closure which can be pressed on a nozzle, wherein two interacting elements move by or over each other due to their flexibility. The closure can only be removed with difficulty in strictly axial/vertical directions by applying a certain force, but can be removed by a rotational movement which is much easier than an axial removal movement. The closure includes a recess in the cylindrical snap tube that engages a force applying element on the shoulder of the container. The sides of the recess are designed such that the gradient at one point on one side is smaller than the gradient at the same point on the other side.

Disclosure of Invention

The present invention seeks to provide an improved snap/twist-off closure which does not suffer from some of the disadvantages of prior closures. In particular, it is durable as seen in standard industrial drop tests. The invention also relates to a package comprising a closure, for example a bottle in combination with a closure.

The base of the closure of the present invention comprises: an upper wall defining an opening; and a cylindrical snap tube depending from the upper wall and extending vertically/axially to the bottom tube end. The cylindrical snap-on tube includes threads on the inner wall designed to mate with external threads on the neck of the bottle. The closure base snaps onto the bottle neck, thereby causing the threads of the cylindrical snap tube to ride over and temporarily lock under the threads of the container neck.

The closure cylindrical snap tube includes at least one resistance recess and at least one guide recess at its bottom end. The resistance recess and the guide recess function in unscrewing of the closure, so that the closure can be easily removed for refilling. The resistance recess comprises opposing first and second walls defined by the cylindrical snap tube and having a gradient, wherein the gradient of one of the walls is at least at one point smaller than the gradient at a point on the other wall at the same axial/vertical height.

When the closure is closed, the force applying element from the container is at least partially received within the resistance recess. The resistive recess wall with the higher gradient is in contact with the force application element, which prevents rotation of the closure in one (non-opening/screw-down closure/closure-securing) direction, typically clockwise. When the closure is rotated in the opposite direction or opening/unscrewing/closure removal direction, contact between the gentle gradient of the opposing walls of the resistance recess and the force applying element will force the closure slightly upwards. During this initial rotation, the internal threads on the cylindrical snap tube maintain their position below the external threads of the container neck as the closure travels axially upward relative to the container neck. Axial movement is due to the angling of the threads; the end result of the angular rotational movement is an axial movement. Alternatively, the closure may be configured such that with sufficient axial force applied, for example by a consumer, even during initial rotation, once the force applying element is disengaged from the resistance recess, the internal thread on the snap tube may ride over the external thread of the container neck to facilitate removal of the closure.

Upon further turning of the closure in the counter-clockwise or unscrewing/opening direction, the force-exerting element will encounter the trailing end of the resistance recess, followed by the bottom edge of the snap-tube, and then the guide recess. During rotation of the closure in the unscrewing/opening direction, the guide recess first extends upwardly from the bottom end to allow the cylindrical snap tube to be lowered relative to the container neck while the mating threads on the closure cylindrical snap tube and the container neck are in contact with each other. Thereafter, with the cylindrical snap tube and neck threads still engaged, the guide recess includes a gradual downward gradient toward the bottom end of the cylindrical snap tube as the closure is further rotated in the unscrewing/opening/closure removal direction.

The downward gradient of the guide recess, and the resulting relative upward movement of the closure in line with the gradient of the mating threads on the container neck and skirt, provides guidance and provides minimal resistance to rotation of the closure in the unscrewing/opening direction. The consumer can continue to turn the closure with minimal resistance to final removal of the closure. The presence of the guide recess also facilitates a reverse process in which the consumer rotates the closure in the closing direction (typically clockwise) after refilling the bottle. It is believed that without the guide recess, the bottom of the snap tube would prevent engagement of the threads when the closure is tightened.

The closure may include a closure element that contacts and/or covers the top wall of the closure base to seal the closure opening, but which is removable from the opening to dispense the product. Preferably, the closure element remains associated with the closure base when the closure element is removed to dispense product, for example by a hinge or other attachment.

The length of the bottom edge of the snap tube extending between the resistance recess and the guide recess is preferably at least 2mm and as long as 5mm, especially 2-4mm, in order to maximise the durability of the closure, including promoting a good, comfortably tight fit of the closure on the bottle during prolonged use.

The closure of the present invention allows the closure to be securely placed on the bottle neck during manufacture, but the consumer can easily remove the closure from the bottle and easily reapply the closure to the bottle, thereby encouraging removal of the closure to refill the container. The closure is durable, e.g. resistant to wear and tear.

It is apparent that changes such as the direction of screwing/unscrewing and the position of the screw thread may require adjustment of the positions and shapes of the resistance recess and the guide recess.

For a more complete understanding of the above and other features and advantages of the present invention, reference should be made to the following detailed description of the preferred embodiments and accompanying drawings.

Drawings

FIG. 1 is a side view of a bottle and closure of the present invention, with the closure shown in cross-section.

Fig. 2 is a front view of the bottle of the present invention with a portion of the neck cut away and showing the closure base above it in cross-section with the closure cap removed.

Fig. 3 is a perspective view from above of the closure according to the invention in the open position.

Fig. 4 is a bottom plan view of the closure of fig. 3.

Fig. 5 is a side view of the package of the present invention with the closure partially rotated in a unscrewing/opening/closure removal direction and a portion of the closure cut away to expose the cylindrical snap tube.

Fig. 6 is a side view of the upper portion of the container with a portion of the closure broken away and the closure in a fully closed position.

Fig. 7 is a side view of the closure with a portion broken away.

Detailed Description

A closure 22 is located on the bottle 20 (fig. 5 and 6). The closure 22 includes a closure base 24 connected to a closure cap 26 by a hinge 28, but other possible arrangements will be apparent to those skilled in the art. As best shown in fig. 1 and 2, the closure base 24 includes a generally cylindrical snap tube 30 that depends downwardly from the upper wall 25. A cylindrical snap tube 30 is positioned to engage a neck 32 of the bottle 20. The inner wall of the cylindrical snap tube 30 includes one or more internal threads 34 that project inwardly.

The closure base 24 includes a centrally disposed dispensing opening 36 in the upper wall 25. Although the opening 36 is shown and described as being centrally located, it may be off-center if desired. Structures, such as a ring 38, may be provided above and/or below the opening 36 to aid in pouring or sealing. When the closure base 24 is positioned on the bottle 20, the opening 36 communicates with the interior of the bottle 20 through the interior of the snap tube 30 and the outer closure base wall 23. The closure cap 26 includes a stopper 40 to assist in sealing the closure and ultimately the bottle.

The neck 32 of the bottle 20 includes an externally threaded protrusion 60.

As best shown in fig. 5-7, the cylindrical snap tube 30 includes a resistance recess 42 extending upwardly from a bottom end or edge 43. The edge 43 extends generally perpendicular to the downwardly extending axis of the tube. As shown in fig. 1, the second resistance recess 42a may exist at a position 180 ° removed from the resistance recess 42. The resistance recess 42 includes two walls 44, 46 formed in the cylindrical snap tube 30. The shape of the walls 44, 46 depends on the direction in which it is desired to rotate the closure in order to release it from the bottle so that it can be removed.

Typically, the closure is unscrewed/opened/removed by a counter-clockwise rotation, so for the purposes of this specification, a counter-clockwise unscrewing/opening will be assumed. It will be apparent, however, that different orientations may be used if desired, and that the shape of the walls 44, 46 and the position of the guide recess 70 will be adjusted accordingly.

As best shown in fig. 6, the resistance recess 42 receives at least a portion of the force applying element 50 when the closure is in the closed position, the force applying element 50 being a protrusion permanently connected to the bottle shoulder 80.

The rearward resistance recess wall during the unscrewing/opening rotation, shown at 44 in fig. 7, comprises a more gradual gradient at its lower end 45 than the gradient of the opposite (forward) recess wall 46. The gradient at the lower end of the drag recess wall 46 is greater or steeper. The force application element 50 also includes two sidewalls 54, 52 having different gradients.

Starting from the initial closed position shown in fig. 6, if the closure is rotated in a clockwise direction as the user turns the closure, the steep gradient of the force element side wall 52 faces the steep gradient on the resistance recess wall 46 and resists rotation. On the other hand, when the closure is rotated in the counterclockwise direction from the initial closed position, the side wall 54 of the urging element having a gentler gradient faces the resistance recess wall 44 having a gentler gradient at the lower half, i.e., at 45, near the base. The effect of this contact between the more gradual gradient walls is that, instead of resisting rotation occurring at a steeper gradient, the force applying element 50 pushes the resistance recess and the wall of the depending cylindrical snap tube 30 upwardly.

The lesser, more gradual gradient of the resistance recess wall 44 at 45 (fig. 7) is similar or identical to the gradient of the sidewall 54 of the force application element of the container, which sidewall 54 faces the resistance recess wall 44 during unscrewing/opening. 44 at section 45 is in a range between 10 degrees greater and 10 degrees less than the gradient of wall 54. Thus, if wall 54 is 45 degrees, the gradient of wall 44 at section 45 is in the range of 35 degrees and 55 degrees. Each of the walls 44 and 54 is in a range between 30 degrees and 85 degrees. The gradient of the wall 44 at the section 45 is measured with respect to a horizontal line drawn through the edge section 56. The gradient of the wall 54 is measured at the point where it first contacts the wall 44 as it rotates and is measured relative to a horizontal line intersecting the point of contact with the wall 44, which line is parallel to or coincident with the bottom edge section 56.

During consumer removal of the closure, further counterclockwise rotation of the closure 22 will cause the force application element 50 to clear the resistance recess wall 44 and the top portion 58 of the force application element to contact the section 56 of the bottom edge 43 of the cylindrical snap tube. Upon further counterclockwise unscrewing/opening rotation of the closure 22, the top portion 58 of the force application element 50 encounters the guide recess 70, as seen for example in fig. 7. The guide recess 70 comprises an upwardly extending wall 72 with a gradient in the range of 90 and 135 degrees with respect to a horizontal line drawn through the section 56 of the bottom edge and then a downwardly extending wall 74 with a smaller gradient in the range of 0 to 10 degrees with respect to a horizontal line drawn through the intersection 75 of the wall 74 and the tube bottom 43.

The distance between the resistance recess 42 and the guide recess 70 is measured along the bottom edge section 56 from the point where the wall 44 merges with the snap tube bottom end or edge 43 to the point where the guide recess wall 70 begins to rise at the beginning of the wall 72. The distance between the resistance recess and the guide recess in the unscrewing/opening direction is preferably at least 3 mm. This distance is typically 2mm to 5mm, especially 2mm to 4 mm.

The presence of the guide recess in addition to the resistance recess also facilitates rotation of the closure in the opposite, normally clockwise, closing direction. As the closure is rotated in the clockwise closing direction, at point 75 (fig. 5), the force application element 50 encounters the progressively upwardly sloping wall 74 of the guide recess 70, then the steeper downward slope of the wall 72, then the edge 43 at the section 56, and finally the resistance recess wall 44 and the steep wall 46.

In operation, during manufacture of the package, the closure 22 is snap-fitted onto the neck 32 (e.g., fig. 2) of the bottle 20 by pressing the closure 22 axially downward (or pressing the bottle 20 axially upward, or both). Because the bottle body and closure are made of flexible material and/or because the presence of one or more recesses in the tube allows the cylindrical snap tube 30 to be radially elastically expanded, the internal threads 34 on the cylindrical snap tube ride over the external threads 60 on the container neck and the closure snaps onto the neck. Thus, the closure is securely attached to the container and requires a significant amount of effort or other external force for the consumer to separate them using a strictly vertical or upward axial movement. Alternatively, the closure 22 may first be applied to the container 20 by rotation thereon to engage the threads.

In normal use, the product is dispensed with the cap 26 removed from the opening 36. The lid 26 is then closed so that the plug 40 seals the opening when the product is not in use.

When the bottle is substantially free of shampoo, body wash, lotion or other product originally contained therein, the consumer removes closure 22 from the package to facilitate refilling and reuse of the bottle. To begin removal of the closure, the consumer rotates the closure in a generally counterclockwise direction from the position shown in FIG. 6 in which the force applying element 50 is at least partially received within the recess 42. As the closure is rotated as described above, the force applying element 50 pushes the closure 22 upwardly. As the closure is rotated, the cylindrical snap tube thread 34 maintains its position under the container neck thread 60 at least until the force application element reaches a position under the second guide recess wall 72, preferably until the force application element reaches a position beyond under the second guide recess wall. I.e. the thread maintains its relative axial position until the force application element reaches such a position.

Next, the force application element 50 encounters the section 56 of the bottom edge 43 of the cylindrical snap tube and then the upwardly extending wall 72 of the guide recess 70. The upwardly extending wall 72 allows the cylindrical snap tube to lower itself axially toward the neck of the container. The barrel snap tube threads 34 remain under the threads 60 so the consumer can continue to unscrew the closure from the container neck using normal rotation. Fig. 5 shows the force application element 50 in the recess 70. This unscrewing rotation can optionally be further facilitated by the force application element top portion 58 contacting the downwardly extending wall 74 of the guide recess 70. Optional contact of the top 58 with the downwardly extending wall 74 can raise the closure barrel snap tube to support the normal unscrewing action of the closure for easy removal. The pitch of the thread is similar to the gradient of the wall 74.

At some point in the opening rotation, preferably after the force application element has passed a position below the second guide recess wall, the cylindrical snap tube thread may optionally pass axially over the bottle thread, thereby facilitating removal of the closure. If this occurs, it will typically rotate further in the opening direction than the position of the force application element 50 shown in FIG. 5, e.g., the force application element 50 will be closer to point 75, preferably past point 75. Interruptions in the external neck thread and/or the internal snap tube thread and the flexible material from which the closure is made are also convenient for removal. Alternatively, as described above, the closure may be configured such that once the force applying element is disengaged from the resistance recess, the internal threads on the snap tube may ride over the external threads of the container neck with sufficient axial force to facilitate removal of the closure.

With the closure removed, the consumer then refills the bottle with shampoo or other product. The consumer then either applies the closure back to the bottle by snapping it down on the bottle neck in an axial direction, or screws it back on to the bottle neck, similar to that used in manufacture. If the latter is selected, the clockwise moving edge 43 of the tube 30 optionally contacts the top 58 of the force application member 50. When the force applying element 50 reaches point 75 (fig. 5), the force applying element 50 encounters the gradually rising wall 74, which gradually rising wall 74 allows the tube to be lowered relative to the bottle neck in line with the normal downward screwing of the closure. At this point, the threads have engaged.

The front and/or top wall of the force application element encounters the wall 72 of the guide recess 70, this wall 72 accommodating the raising of the tube 30 relative to the bottle neck 32, and the top 58 of the force application element 50 optionally contacts the section 56 of the rim 43. Upon further rotation, the force application element reaches the resistance recess wall 44 and the tube 30 moves downward as the force application element 50 is received within the recess 42. As the consumer rotates the closed closure, the internal threads 34 of the tube 30 maintain their position under the external threads 60 on the bottle neck 32. When the force application element wall 52 encounters the steep wall 46 of the resistance recess 42, the closure can no longer rotate.

By strictly vertical/axial placement on the bottle during manufacture, the closure can be safely and economically placed on the container neck, while refilling the container is improved by providing the consumer with the ability to easily rotate the closure to remove and reapply it to the bottle. The closure 22 may also be applied to the container during manufacture by rotation to engage the threads.

The upward or downward movement referred to herein assumes that the container 20 rests on its base (not shown) at its end opposite the closure.

The closure may be made of polypropylene or polyethylene or similar polymeric material and the bottle may be moulded from high density polyethylene or polypropylene or PET. The closure is designed to be durable and resistant to normal wear and tear caused by opening and closing the closure and even dropping.

Personal care products include products for the skin, scalp or oral cavity such as shampoos, body washes, skin lotions and the like.

The invention includes the following numbered aspects:

1. a closure comprising

a. An upper wall defining an opening;

b. a cylindrical snap tube depending from the upper wall and extending axially to the bottom end;

c. the cylindrical snap tube includes at least one resistance recess at a bottom end thereof;

d. the cylindrical snap tube further comprises at least one thread on an inner wall thereof;

e. a cylindrical snap tube defining opposing first and second walls of a resistance recess;

f. the first and second drag recess walls have a gradient, wherein the gradient of one of the first and second drag recess walls is at least at one point less than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

g. the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering the cylindrical snap tube thread relative to the container neck,

the closure is configured such that the guiding recess comprises a first guiding recess wall with an upward gradient and a second guiding recess wall with a downward gradient, such that in a closing rotational direction of the closure the first guiding recess wall allows the cylindrical snap tube to be axially lowered towards the container neck with the force application element and the second wall, coinciding with the closure cylindrical snap tube, to be raised relative to the container, and when the force application element contacts the small gradient resistance recess wall, the thread maintains its axial position relative to the thread on the bottle neck to which the closure is applied, at least until the force application element reaches a position below the second guiding recess wall.

2. The closure of item 1, further comprising a closure cap for closing the opening, the closure cap hingedly attached to the closure base of the closure.

3. The closure of item 1, wherein, in the rotational direction of unscrewing the closure, upon encountering the resistance recess, the force application element encounters the first guide recess wall and then the second guide recess wall.

4. The closure of item 1, wherein the cylindrical snap tube thread and the container thread retain their relative axial positions when the force application element reaches a position below the first guide recess wall, with the container thread being above the snap tube thread.

5. The closure of clause 1, wherein the second resistance recess wall has a lesser gradient, and the lesser gradient of the second resistance recess wall is in the range of 10 degrees less to 10 degrees greater than the gradient of the sidewall of the force application element of the container that faces the second resistance recess wall during unscrewing of the closure, and the lesser gradient of the second resistance wall and the sidewall of the force application element that faces the second resistance wall have a gradient between 30 and 85 degrees.

6. A container comprising a combined closure and bottle, the container comprising a closure and bottle having a bottle neck and at least one force applying element,

I. the closure member comprises

a) An upper wall defining an opening;

b) a cylindrical snap tube depending from the upper wall and extending axially to the bottom end,

c) the cylindrical snap tube includes at least one resistance recess therein extending to the bottom end;

d) the cylindrical snap tube further comprises one or more threads on an inner wall thereof;

e) a cylindrical snap tube defining opposing first and second walls of a resistance recess;

f) the first and second resistive recess walls have a gradient, wherein the gradient of one of the first and second sides is at least at one point smaller than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

g) the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering and raising the cylindrical snap tube thread relative to the bottle neck,

the bottle neck has external threads and the at least one bottle force element is adapted to be at least partially received within a resistance recess of the closure cylindrical snap tube, wherein the guide recess comprises a first wall with an upward gradient and a second wall with a downward gradient, whereby in a closing rotational direction of the closure the first guide recess wall allows the cylindrical snap tube to be axially lowered towards the force element and the second guide recess wall, which coincides with the closure cylindrical snap tube, to be raised relative to the closure element, and when the force element contacts the small gradient resistance recess wall, the snap tube internal threads and the bottle neck threads maintain the bottle neck threads in a relative axial position above the snap tube threads at least until the force element reaches a position below the second guide recess wall.

7. The container of clause 6, wherein the cylindrical snap tube thread axially passes over the bottle thread with the addition of axial force after the force application element reaches a position below the second guide recess wall.

8. The closure of item 1, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is at least 2 mm.

9. The closure according to item 8, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is 2mm to 5 mm.

10. The closure according to item 9, wherein the distance between the resistance recess and the guide recess in the unscrewing direction is from 2mm up to 4 mm.

11. The closure of item 1, wherein the first guide recess wall has a gradient in the range of 90 to 135 degrees.

12. The closure of clause 1, wherein the second guiding recess wall has a gradient in the range of 0 to 10 degrees.

13. The container of item 6, wherein

The second resistance recess wall has a smaller gradient and the smaller gradient of the second resistance recess wall is in the range of 10 degrees less to 10 degrees greater than the gradient of the sidewall of the force application element of the container, which sidewall faces the second resistance recess wall during unscrewing of the closure, and said smaller gradient of the second resistance wall and the sidewall of the force application element facing said second resistance wall have a gradient between 30 and 85 degrees.

14. A closure, comprising

a. An upper wall defining an opening;

b. a cylindrical snap tube depending from the upper wall and extending axially to the bottom end;

c. the cylindrical snap tube includes at least one resistance recess at a bottom end thereof;

d. the cylindrical snap tube further comprises at least one thread on an inner wall thereof;

e. a cylindrical snap tube defining opposing first and second walls of a resistance recess;

f. the first and second drag recess walls have a gradient, wherein the gradient of one of the first and second drag recess walls is at least at one point less than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

g. the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering the cylindrical snap tube thread relative to the container neck,

the closure is configured such that the guiding recess comprises a first wall with an upward gradient and a second wall with a downward gradient, whereby in a closing rotational direction of the closure the first guiding recess wall allows the cylindrical snap tube to be axially lowered towards the force application element and the second guiding recess wall, which coincides with the closure cylindrical snap tube, is raised relative to the closure element, the closure being made of a flexible material.

15. A container comprising a combined closure and bottle, the container comprising a closure and bottle having a bottle neck and at least one force applying element,

I. the closure member comprises

h) An upper wall defining an opening;

i) a cylindrical snap tube depending from the upper wall and extending axially to the bottom end,

j) the cylindrical snap tube includes at least one resistance recess therein extending to the bottom end;

k) the cylindrical snap tube further comprises one or more threads on an inner wall thereof;

l) opposing first and second walls of the cylindrical snap tube defining a resistance recess;

m) the first and second resistive recess walls have a gradient, wherein the gradient of one of the first and second sides is at least at one point smaller than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

n) the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering and raising the cylindrical snap tube thread relative to the bottle neck,

II, the neck of the bottle is provided with an external thread,

the at least one bottle force application element is adapted to be at least partially received within a resistance recess of a closure cylindrical snap tube, wherein the guide recess comprises a first wall with an upward gradient and a second wall with a downward gradient, whereby in a closing rotational direction of the closure the first guide recess wall allows the cylindrical snap tube to be axially lowered towards the force application element and the second guide recess wall, which coincides with the closure cylindrical snap tube, to be raised relative to the closure element, the closure being filled with a personal care product from a flexible material and/or the bottle.

16. The closure according to item 14, wherein the closure is configured such that with sufficient axial force, even in the event of initial rotation, once the force application element is disengaged from the resistance recess, the internal thread on the snap tube can pass over the external thread of the container neck to facilitate removal of the closure.

17. The container of item 15, wherein the closure is configured such that with sufficient axial force, even upon initial rotation, once the force applying element disengages from the resistance recess, the internal threads on the snap tube are able to pass over the external threads of the container neck to facilitate removal of the closure.

18. A container comprising a combined closure and bottle, the container comprising a closure and bottle having a bottle neck and at least one force applying element,

I. the closure member comprises

o) an upper wall defining an opening;

p) a cylindrical snap tube depending from the upper wall and extending axially to the bottom end,

q) the cylindrical snap tube including at least one resistance recess therein extending to the bottom end;

r) the cylindrical snap tube further comprises threads on its inner wall;

s) opposing first and second walls of the cylindrical snap tube defining a resistance recess;

t) the first and second resistive recess walls have a gradient, wherein the gradient of one of the first and second sides is at least at one point smaller than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

u) the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering and raising the cylindrical snap tube thread relative to the bottle neck,

II, the neck of the bottle is provided with an external thread,

the at least one bottle forcing element is adapted to be at least partially received within a resistance recess of a cylindrical snap tube of a closure made of a flexible material and/or a bottle containing a personal care product.

19. A closure, comprising

a. An upper wall defining an opening;

b. a cylindrical snap tube depending from the upper wall and extending axially to the bottom end;

c. the cylindrical snap tube includes at least one resistance recess at a bottom end thereof;

d. the cylindrical snap tube further comprises at least one thread on an inner wall thereof;

e. a cylindrical snap tube defining opposing first and second walls of a resistance recess;

f. the first and second drag recess walls have a gradient, wherein the gradient of one of the first and second drag recess walls is at least at one point less than the gradient of the other of the first and second recess sides at a point located at the same axial height; and

g. the bottom end of the cylindrical snap tube is shaped to include a guide recess for lowering the cylindrical snap tube thread relative to the container neck, and the closure is made of a flexible material.

It should be understood, of course, that the specific forms of the invention herein shown and described are intended to be representative only, as certain changes may be made in the specific forms of the invention herein shown and described without departing from the clear teachings of the disclosure. Accordingly, reference should be made to the following appended claims in determining the full scope of the invention.