HU229157B1 - Closure cap and method for joining a closure cap to a bottle - Google Patents

Abstract

The present invention relates to a closure cap for a bottle and a method for clamping the end cap to the bottle. The closure cap for the bottle vessels according to the invention, having a collar connected to the pouring opening of the bottle vessel, is characterized in that the collar (29) is provided with an inclined inlet surface (S) associated with the flange (31) of the pouring opening (14) and an inlet surface. (S) is formed from a plurality of convex, separate inlet tongues (33), externally convex. A closure cap with a collar and a collar connected to the pouring orifice of the bottle vessel is characterized in that the collar (2) has an oblique inlet surface (S) associated with the flange (31) of the pouring opening (14), which is formed by a plurality of convex curved, separate inlet tongues. and the introductory languages (33) are curved from outside. In the process according to the invention, the bottle is provided with a collar (29) connected to the pouring opening of the glass, characterized in that the slanted collar (29) is formed on the sealing collar and several separate, convex curved guides are formed during the clamping. by means of an inclined inlet surface (S) consisting of a tongue (33), it is directed to the alignment position in the same axial direction.

Description

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BACKGROUND OF THE INVENTION The present invention relates to a closure cap for a bottle having a collar engaging a bottle opening.

The invention further relates to a method of snapping the closure cap onto a bottle. Such a closure for fitting to the neck of a container is known from German Patent Application DE-PS 33 45 350. The pairs of latches assigned to each pair are formed by snap-in pins from the lid of the closure cap, which continue in a protrusion of one horse below the neck. The back of the two latches are supported by tongues. These extend from the inside wall of the dome-shaped cap.

It is an object of the present invention to provide a lockable design of a bottle-like closure that can be connected to a bottle receptacle in the introduction, despite the maximum material-saving design.

The object of the present invention is achieved by a slug having a vent in the spout of the bottle, characterized in that the collar is provided with an oblique inlet surface on the spout and the inlet surface is formed by a plurality of separate inlet tongues.

on the rim, my hill from the outside,

The object of the present invention is further accomplished by a cocktail cap having a collar connected to the spout of the bottle and characterized in that the collar has an oblique inlet surface connected to the spout of the spout which has a plurality of externally embossed curved, separate beXs. Φ ΦΦ ΦΧ φφ »« «Φ« ΦΦΦ

ΦΦ * Φ φ Φ * φ X «φ * · Φ Φ Φ * Φ ΦφΦ Φ X

X * φ Φ V * * φ φ ΦΦ ΦΦ «» «ból ból φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ ΦΦ φ ΦΦ ető ΦΦ φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ φ ető φ ető ető φ φ φ.

In a preferred embodiment of the cap according to the invention, one of the inner edges of the flange is provided with an obliquely inclined chamfer, the flange is of the same thickness as the wall of the slate neck, and the collar is formed centrally.

In another preferred embodiment of the closure caps of the present invention, the collar is concentric with respect to a dispensing spout, while in another embodiment, the collar is designed such that it closes without an opening at the top of the closure cap.

In a further preferred embodiment of the closure caps according to the invention, the lead-in tongues are equal to five times the collar wall thickness, the lead-in slope has a slope of 45 ° relative to the center axis of the lock (x ~ x) and four lead-in tongues.

In a preferred embodiment of the closure caps according to the invention, the collar is formed as an annular wall extending from above, or the collar is a hose collar or the collar is a hollow plug.

In another preferred embodiment of the closure caps of the invention, the inlet tongue is formed as an inwardly curved ring and the inlet tongues are formed to form a hemispherical collar head.

The object of the present invention is further achieved by the method of clamping the closure cap on the bottle by a method characterized in that the inclined collar is formed by a single inclined, externally convex, curved guide tongue formed on the sealing collar. through the lead-in surface, it is directed to the alignment position in the same axial direction,

The ring - the cylinder jar usually overcoming the locking lip formed by the ring flange - uses the longitudinal reserve between partial utilization and full exhaustion for a short period of time towards the ideal circumferential structure and then the ring * «>> φ Φ X Λ ♦ ♦ * * φ * X * Φ φ J * * Φ ». φ Φ »« «Μ 4

Vissza ΧΦ φ φφ φφ χ φ φφ φφ φφ φφ állító vissza φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ φφ Mind Mind Mind Mind Mind Mind Mind Mind Mind Mind Mind Mind Mind hető The larger structural dimension is obviously in the direction of insertion. The long rectangular cross-section of such a ring is sufficient to safely counteract the latch projection on a bottle neck with a kion opening. If there are no outlet means, then there is an irreversible locking with the slate neck or the bottle receptacle. In addition, the locking lever is substantially parallel to the center line of the outward opening. This allows transmission of collisional forces. The locking lever is particularly stable when you are partial in the ring shape. The advantageous solution is to form two substantially opposing latch arms. The hhc reserve is created by the corrugated design of the ring. It is sufficient that only part of the ring is corrugated in the circumferential direction. However, the area of the longitudinal reserve other than the contour of a regular annular ring can also be realized by forming the longitudinal reserve in the area of attachment to the locking lever of the ring. This applies properly to both latch arms, on both sides. In addition, the ring is substantially perpendicular to the latch arm. It is also conceivable and advantageous to have a ring having a sharp angle to the latch arms in a lateral projection. Preferably, in the pointed nail, the aho ring consists of a section covering an equal height area. Is this the control if the cap is to be reversibly pa?

existing, and is based on the assignment indicated above. Accordingly, the locking projection on the bottle vessel is then configured to counteract. Counter-threading can also be counteracted by mounting, but at the same time it allows for twisting and unscrewing. Preferably, the thread is a steep-pitched thread, most preferably a two-threaded thread. The interruption of the corresponding threads thereby provided can further advantageously be effected in such a way that one of the circumferential faces of the thread cooperates with the abutment surface formed on the ring or the latch arm. This is for the benefit of limiting twisting »» »Φ Φ W Φ Φ Φ φ

X Φ φ ΦΦ ΦΦ φ * ^Λ »· Χ Φ Φ Φ Φ *

ΦΦΦ X X Φ φ. φ »κ φφ,,,, mind mind mind össz,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,,, φ, φ össz,,,,,,,,,,,,,,,,,,, ,φ, φ, Said abutment surface is formed on the inside of the latch arm as a substantially vertical abutment bar. This is formed on the latch arm and acts as a stiffener to form the T-profile, although the stem of this T-profile has a short, circumferentially angled section on the ring which forms an abutment surface which prevents unwinding. This angled section is preferably provided on the ring latch plate and may further cooperate with a suitable counter surface of the thread. However, it is particularly advantageous if the stop surface is provided at the separate stop projection of the container. This is preferably a twist! It is also advantageous to adjust the stop surface to allow the ring to overturn and elastic deflection under force. This will release the bar for deliberate dismounting of the cap. Here, in addition, the stop projection has an oblique surface which is screwed in! you can run over in directions. If the irreversible version is to hold, it is only necessary that the stop face is transverse to the direction of rotation of the closure, i.e., for example, radially to the geometric axis of rotation. Even a hook-engaging back engraving can be used. One of the closure caps of the type described in the introduction having a central collar associated with the spout opening of the bottle, is particularly fitting that the collar has an oblique inlet surface that cooperates with the spout. The oblique lead surface, which creates, for example, a rotationally symmetrical, effective centering of the flange relative to the flange, reduces the risk of collision when the two components are joined and the non-linear train is approached. Here, it is sufficient to thin the free end of the collar on the side of the outer rim. Thus, it is practically sufficient for the inclined guide surface to extend inward at least as much as one wall thickness of the collar. In any case, it is safer if the oblique lead-in surface is several times the collar wall thickness. It can be up to five times even if necessary. It is advantageous if the oblique * 0 κ «« «« «# ♦ interface is formed by several separate introduction languages. They have a typical tongue-in-cheek flap and can also cry like a lip towards the free end. I concluded. that four inlet tongues, spaced at the same angular spacing, are sufficient. The vessel contributes to the proper centering of the elements to be joined by the dougging technique by breaking the inside edge of the bottle neck. According to a further embodiment of the invention, the closure cap is closed in its entirety but has a specially designed cover on its outside which provides information, etc. You can carry. To select the color, etc. it is advantageous that the cover portion is held in place by a locking catch on the closure cap. Considering the dome or flat dome shape of the closure cap, it is preferred that the cover portion is spherical. Provides a good base for connection if the end cap is flush with the cover area. According to another suggestion, in order to prevent the cover portion from having incisive edges, the flat surface portion is recessed into the outline size of the cover portion. In this case, the cover part · Even surface treatment of the flange is not required here. According to another suggestion, the impact bar is formed directly by a stop surface of the locking lever and cooperates with a stopper neck at the bottom of the bottle neck, which is a jamming! serves as a stop stop for rotation. Here, a rather large surface fracture can be created, which in any case is larger than the usable surface of a threaded end face. According to another suggestion, in order for the necklace to be used for threading, the backside of the necklace is substantially aligned with the thread of the locking thread. This also enhances the stability of the neck, which can also be placed in pairs. The stability of the impact bar is also enhanced by combing the backside of the latch or the impact bar. The latter may be practically T-profO-like in the inner wall of the closure cap. Another way of securing against twisting is by combining features such that: the end cap has a spring-like flap on the inside which, in the end-position of the screw-on end, is flap-like with a flap; ♦ ΦΦΧ χ «« «« ί ί « * * X * * »Φ 9«

Φ χ X> »» Χχφ Φ «♦ Φ * Φ Φ« Φ XX χ φ »« «Φ> χ Λ * Φ«. X »· ♦ protects the cap against unintentional twisting. This means of securing the closure cap against unintentional curling is also suitably doubles. Advantageously, the flap extending beyond the flap flaps is incorporated in the inner wall of the closure cap so that the connection is stable in terms of loads. Here, however, it is sufficient to fasten on a partial groove, that is to say, the flap is not attached to the inner wall at its entire length and gives a freely springing tongue to the flange. This clearance reinforces the overdrive component when traversing the boundary ribs. The user receives a clear acoustic signal to reach and leave the end position. It is sufficient if the length of the tongue is at least equal to the height of the rim. It has been found useful for mounting the closure cap and for the ring to break through that the portion of the ring hooked below the latch projection is inclined relative to the centerline. This results in a centrally acting catch funnel and the locking projection can be overcome with the least effort. Preferably, the present structural characteristics, that the angle of inclination of about 20 ^ö, Moreover preferred that the rhomboid keresztmetszeföek alányűíó sections. It is further preferred that the protruding projection is pointed at the neck of the bottle and the end away from the protruding projection is outside the rim of the latch projection. This will delay the downward projection. In addition, the centering component of the backward force increases. That's it

In order to be able to use the packaging device in spite of its relatively large cross-sectional shape and therefore favorable loading, the injection neck is provided with a closure cap in the form of an intermediate cap according to a preferred embodiment of the invention. This is the intermediate cap so a. It has the function of an adapter in terms of cross-section. The cap shape provides sufficient assignment stability despite the significantly reduced wall thickness. The buffer assignment can be applied, The intermediate * φ * «φ ♦♦ Φ * φ» »« * φ Φ * X Φ * φ φ

X * Φ ΦΦ ΦΦΦ * * * X X * X X X X φ X íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti íti ί íti íti íti íti ί ί ί preferably it is snap-on by a flange. Preferred is the latch-side latch, which is characterized by an outward-facing latch on the edge of the palsck neck. Accordingly, the latches are located on the inside of the flange of the intermediate cap and extend with the steep side below the corresponding lower side of the flange ring. Obviously, such latches have a backside that can be passed through. The latches on the backside are cut out like windows. This improves their possibility of radially outward deflection. It is advantageous to have four latches arranged at the same angular distance in a divider. According to another suggestion, the intermediate cap is provided with a syringe barrel in the center, so that no separate sizing is required. According to a further feature, the injection nozzle can be closed with a stopper plug. It is then advantageous for the plug to be surrounded by a centering shaft of the injecting beak formed by radial slats starting from the lid of the closure cap. The latter structure, which is very thin-walled, implies material savings and nevertheless guarantees sufficient stability of this mechanically stressed section of the dispenser. In order for the radial ribs to have a particularly useful position for deformation, it is also recommended that the radial ribs be connected at the backside by an annular wall which also extends from the lid. In addition, this wall stabilizes the lid itself. In addition, the intermediate cap has a collar to enter the seal of the bottle neck. In order for this exposed portion to be assigned without tilting, in a self-feeding manner, the collar has an oblique lead-in surface formed by lead-in tongues as mentioned above in one embodiment. Of particular importance is an enhancement to the ring whereby the stems of the ring sections extend from the wall of the closure cap. The sections thus start directly from the inner wall of the closure cap, the wall sections of the closure cap being part of the ring cushion * Φ ΧΦΦΦ

Φ * »*« * -V Φ. * β ♦ * φφφ φ φ. φφφ φ>

* <* φ * # Φ φ φ φ X

XX * XX ΦΦ φφ φ φ φφ. From the wall, each of the two backs forms an elongation reserve between the legs of the sections (see Figure 1). For safety reasons, it is important that child closure cuffs are provided near the flange of the closure and cooperate with slanting cams on the underside of the bottle neck. . The loading of portions of the wall away from the locking cams will highlight the locking cam brush from the area of action of the cams.

Our invention by way of example! Embodiments of the Invention With reference to the accompanying drawings, it is described where

Fig. 1 is a ring forming the most important element of the closure cap for locking

Figure 2 is a perspective view of a modified solution for the items forming the long-term reserve, a

Figure 3 is a cross-sectional view of the cap and the neck of the bottle, locked,

Fig. 4 is a sectional view taken along section IV-IV of Fig. 3;

Figure 5 is a sectional view taken along the section V-V of Figure 3, with a partially cut ring,

Figure 8 is a sectional view similar to Figure 3 showing one version of the ring without the container,

Fig. 7 is a sectional view taken along the Vil-VII section of Fig. 8, a

Figure 8 is a sectional view taken along section VII-VII of Figure 8, also with a partially broken ring,

Fig. 9 is a neck portion of a bottle with a thread, a

Fig. 10 is a view similar to Fig. 5, showing the stop bar for screwing in,

Fig. 11 Insulated ring with two spacer strips, φ ΦΦ «χ χ.χ ΦΦ φχ k« «« »« * ♦

X #> Φ φ X »» β χ φ

Φ X χ »» Χ «y« «Φ * * * * φ Φ X X X X Φ

ΦΦ «X ΦΦ φφ X χΦ

Fig. 12 is a perspective view of the ring with the course of the rotation sections adapted to the thread, a

Figure 13 is a modified view similar to Figure 5, twisting! with a preventive element, a

Fig. 14 is a sectional view taken along the pruners XIV-XIV of Fig. 13, a

Figure 15 is a view of a variant of the enlarged detail of Figure 14, a

Fig. 16 is a finished dispenser with a basic version of the ring, a

Fig. 17 is an exploded view of a version of the lock, partly in section, partly broken (here the bottle container),

Figure 18 is a top view of a side dish, a

Figure 19 is a side elevation view of the pan of Figure 18 with a broken pan neck, a

Fig. 20 is a storage vessel for a mounting section, a

Fig. 21 is a cross-sectional view of the ready-fitted closure, securing the closure cap against being unscrewed,

Figure 22 is an enlarged view of the bottle neck, a

Figure 23 is an enlarged view of the cap of the closure, a

Figure 24 is a view similar to Figure 21, with an improved version of the anti-twist locking device;

Figure 25 is a view similar to Figure 6, with an improved version of the ring, a

Figure 26 is a perspective view of the ring of Figure 24. in which the cap is partially broken,

Figure 27 is a further embodiment of the closure cap with a bottle receptacle, wherein the closure is provided with a syringe insert, in vertical section or vertical section, respectively;

Fig. 28 is a bottom view of a syringe insert formed as an intermediate cap, β * φφ «φφφ ** Φ *« »Φ Φ 9 X φ

Φ * * X XX ΦβΦ Φ φ

Φ ΦΦΧ «- Φ« «Φ Φ« «ΦΦ φφ tt-χ ΦΦ φ, φ χ, φ

Figure 29 is a sectional view taken along the section plane XXIX-XXtX of Figure 28, a

Figure 30 is a top view of the intermediate cap, a

Figure 31 is a bottom view of the closure cap, a

Figure 32 is a sectional view taken along the section plane ΧΧΧΠ-ΧΧ.ΧΧ in Figure 31, a

Figure 33 is a view taken along the line XXXII1-XXX1H of Figure 31. engraving, a

Figure 34 is a side view of the top of a slate pot with a broken bottle neck, a

Fig. 35 is the same as Fig. 34 but 90 °! rotated side view, broken near edge,

Figure 36 is a top view of the upper portion of Figure 34, a

Fig. 37 is an enlarged view of the bottle neck, a

Figure 33: Improvement of the lock with the basic version of the ring, a

Fig. 39 is a top view of a bottle container with a dotted cap; but here only the ring is visible, in the closed position, a

Fig. 40 is a top plan view similar to Fig. 33 with the dotted cap in a transverse position releasing the ring;

Fig. 41 is a schematic diagram of an encoding variant of a screw lock, a

Fig. 42 is a vertical sectional view of the cap of Fig. 43, showing a section of the ring;

Figure 43 is a sectional view similar to Figure 42 showing another portion of the ring, a

Figure 44 is a cross-sectional view of the closure cap, a

Fig. 45 is a view of a bottle neck with threaded latch projections from one end face of the associated bottle vessel,

Fig. 46 is a view of the wide side of the container, a

Fig. 47 is the same, viewed from the other wide side of the container, Figs. 48-50, the closure permits pairing! position of the az φ φ

ΦΦΦ «X» Φ X * »ΦφΦ Φ

Φ X X φ φ Φ Φ

51-53. The lock does not allow pairing

The closure V of the dispenser or wrapper shown in Fig. 3 has a closure cap 1 which can be attached to a bottle neck 2 of a container 3.

Both pieces are maximally thin-walled. One is an injection molded piece and the other is a blow mold. In addition, it is important for the production of both pieces that the assembly process is always safe, especially with regard to the locking elements implemented here. Thin-walled bottles that you produce with pre-form technology also meet the requirement. For such preformed bottle containers, the locking device of the present invention described herein is well suited.

The locking element on the side of the closure 1 is a ring R on the side of the container 3

The locking projection 4 is on the peripheral wall of the bottle neck 2. The locking projection 4 is formed by a continuous or discontinuous annular flange. Its upper side is inclined outwards and inclined towards the bottle vessel 3. The underside extends steeply, i.e. substantially horizontally, i.e. perpendicular to the vertical longitudinal center line x-x of the bottle openings 2.

The R-ring is carried by 5 latches. These are made up of vertically oriented tongues that start from the 6 covers of the V lock. The lid 6 extends through a sloping wall on each side in a dome-shaped body. Its front flange 8 rests on the circumferential shoulder 9 of the bottle vessel 3. A flat pictorial base 10 extends beyond the shoulder 9. From the above mentioned bottle neck 2, the edge 11 of the base 18 sloping steeply towards the shoulder 9 is fitted with a dome-shaped paint ellipse or oval edge 7, whereby the inner cap 1 has a favorable rotation with respect to the bottle vessel 3. against. Both the cap 1 and the bottle 3 are flattened. In this way the relative position of the two pieces relative to each other is guaranteed.

X 4φ4φ 4 »φ: * í Xaíí« φ «φ e * χ χ φ * 'χ φ * * φ * 4 4 X« 4 Φφ4 4 φ

S * Φ * X 4 Λ Φ 4 * Φ

Φ * β ΦΦ 44 ΦΦ 4φ 4 –ΦΦ

The ring R forms a projection 12 with its upper side, with 4 latch projections, more specifically its lower side.

The ring R has a closed, rain-like, axially ribbed configuration. The ribbon has a substantially rectangular cross-section. The long side of the strip is in the direction of the assignment indicated by the arrow y of the cap 1. In some embodiments, the projection 12 is oblique to the upper side of the locking projection 4. This facilitates impact mapping.

By default, the inside diameter of the ring R is substantially equal to the diameter D of the block 2 at the locking position of the ring R. In addition, the R ring is provided with sections larger than the inner diameter d. These sections form a length reserve L. The length reserve L is dimensioned such that the ring R can be expanded against its own restoring force. This condition occurs when the R ring has to overcome a latch projection 4 having an outside diameter greater than d, which occurs by the impact mapping.

As shown in Fig. 2, the longitudinal reserve L for the R ring is created by the corrugated design of the R ring. This figure shows the corrugation 13, the outwardly tapered protruding tips as protrusions extending beyond the circular ring shape;

However, as shown in the figure, the wave amplitude can also be acted upon; In each case, the corrugation 13 is such that the projection 12 extends circumferentially enough to rupture at the re-projection 4, which is correct!

In the basic version of the R ring shown in Fig. 1, L is the reserve of length. It has 5 latches in the ring connection area. These locking arms 5 themselves are convex in the shape of an annular section, but are of another larger diameter and are substantially rotationally parallel to the cylinder neck 2 or

Í3 «# · * <* Ά *>. · *% 9- $ t» A ·> * * »Α« «Α χ: <α« * .κ ψ * * «* * · * - AA Α» * * Α 4 9 XX * Α Α «Α« «>

nyaköble. with the longitudinal centerline χ-χ and the spout 14. Due to the convexity, the latch arms 5 are very stable.

As shown in Figure 1. the tape extends at the point of attachment of the δ latch arms through the stems 15 in the latch arms 5. The tape forms a protrusion on the balcony there. The legs 15 are substantially parallel. Gas transitions can be slightly rounded as shown in the figure. The longitudinal extension L - which, as in the case of the 13 bullet points, is created by a change in the direction of the parts of the tape - contains the same spout. The offset direction of the two arms 15 is indicated by the arrow z. The stems 15 act as hinges.

As a result, the lower ends of the latch arms 5, which are involved in forming the belt, are converging radially inwardly together. This direction of movement is indicated by the arrow A.

The length reserve L can be increased, if necessary, so that in the embodiment illustrated, the bases 15 are substantially parallel to each other and extend inwardly in the expansion direction.

While in the basic version of the R-ring (Figs. 1-5 and 18), the ring is substantially perpendicular to the direction of extension of the latch arms 5, the R-ring of Fig. 8 and the following figures are oblique. The locking projections 4 are arranged accordingly. The R-ring closes with the latch arms 5 at a sharp angle α of about 20 °. The ascending portion begins only at the transition between the stem 15 and the substantially circular portion 16 of the belt or ring R which is connected thereto. In this case, the R-ring in the pointed projection consists of two substantially opposed circular sections 18. They are located in the same height area.

The height range is defined by the upper and lower ends of the 4 latch projections, which are knee-high.

The locking projection 4 on the neck of this bottle 3 as a thread * «** 0« «0 XX XX« 0 * 00 »

X 0 0 X »» »χ 0» X X · * · Χ 0 00 0 »· * *» 0 χ χ. 0. 0 0 * * * «0 0 X SL« 0 the stop 22 is provided. This thread consists of two turns

However, said thread also serves as a ratchet stop for the closure cap 1 to be assigned to the threading technology. Reference is made to Figure 10. It can be seen that the circumferential end face of one of the threads here specifically acting as a latch projection 4 interacts with the abutment surface 18 formed on the ring R or the latch arm 5. In the illustrated embodiment, the stop surface 18 is located on an impact bar 19 formed on the inside of the bar 5. The strut 19 is vertically positioned and protrudes from the longitudinal center of the latch 5 so that the actual striking surface 18 is symmetrical. The vertical stop tab 19 extends from the lid 6 of the end cap 1. Each locking lever 5 is provided with a stop member 19, so that both threads, i.e. the end face 17 near the mouth of the spout opening 14, can be used as described. This will result in a balanced impact effect. The R-ring does not compress easily.

13-15. In addition, in the further embodiment of FIG. 2B, the unintentional twisting of the closure cap 1 is further prevented. Preferably, the latch arms 5 serve for this purpose, although the R ring itself may provide adequate inhibition. One is shown on the S latch lever. a circumferentially obliterated section 20 extending in the direction of the extension of one of the arms 15. The axial extension of this or the angled portion 20 is the end cap 6.

The stop surface 21 cooperates with a separate stop projection 22. The stop projection 22 is formed on the bottle neck 2 of the container 3, The stop surface 21 cooperates with the steep side 23 of the front face (see FIG. 14). The bar 22 has an iv shape and is directed towards the peripheral wall of the bottle neck 2. When the cap 1 is engaged, i.e. when screwed, it is possible to pass through the inward oblique surface 24 with moderate force. The preferably tooth-shaped stop projection 22 acts as a toothed handle «« ΦΦ ♦ * φ.

If the angle of the steep side 23 of the abutment projection 22 is sufficiently steep, that is to say radially directed radially to the longitudinal x-x centerline of the spout 14, the lock V is irreversibly locked.

In order to obtain access to the space of the bottle vessel 3, for example for the purpose of refilling the dispensed material, the V-lock can also be formed in a reversible assignment so that the otherwise aperture angle of about 90 ° is much dimmer.

Reference is made to Figure 15. The angle of this steep side 23 is such that it allows the user to twist the thread. The opening is sufficiently easy to be adjusted by the manufacturer by changing the angle. The oblique surface of the abutment surface 21 may then be obliterated and formed parallel to the steep side 23 (see Fig. 15),

The most recently described rotatable version of the closure is also well suited for stopping the stopper cap 1 of the container 3. This is important when you first install the series, as it saves time.

In the following, the other elements of the V-lock will be briefly described. Just like this one

As shown in Fig. 16, the lid β is lowered in its middle section. In this way, a trough 25 is placed in the trough crossing the end cap 1. The tumbler 25 has a snap spring and a hollow plug 26. During the movement of a hinge about a lateral hinge 27, the closure of the hollow plug 26 extends into the cavity of a discharge spout 26. The flow electrode of the drain line 28 is connected to the spout 14 of the bottle 3.

From the underside of the recessed portion of the lid 6, the sealing collar 29 extends conclusively to the end of the cavity opening 14 of the bottle neck 2, which is concentric to the end. Any expansion due to thin walling then facilitates solid support between ring R and locking projection 4.

«« - »» φφ ΦΦ φ X Φ «» «» «« «» * Φ Φ * * ♦ β Φ X- β * »* ♦ ΦΦ χ ν« t ♦ φ

Φ φ X Φ «♦ φ X X X φ * ♦ * ** * Φ. <·:« Φφ X ΦΧ

The structure of the V-lock shown in Figure 17-23 is in principle the same as the basic version. References are used, mutatis mutandis, without repetition of the text.

Further, the collar 30 corresponding to the sealing collar 29 of Figure 16 also functions as a plug-in closure, i.e., a hollow plug 28.

However, it is also possible to apply the improvement solutions in the embodiment of Figure 16

Specifically, the closure cap 1 protrudes centrally with the central collar 30 into the spout 14 of the bottle neck 2 of the container 3,

For proper pre-positioning, the collar 30 has an oblique lead-in surface S that occupies at least the outer side of the collar 30 and has a significantly greater effect than the outer rim fracture of the sealing collar 29 of FIG. the collar extends inward to the same thickness as a wall. The skew over the longitudinal x-x centerline of the V-lock is more than 45%

The oblique inlet surface S cooperates with a flange 31 of the spout 14 of the bottle neck 2. The flange 31 is a foremost flange whose inner edge is broken. The obliquely inclined chamfer 32 forms the neckline lead-in when the cap 1 is connected. The flange 31 is retracted with a wall thickness of the bottle neck 2 and is thus stabilized.

The oblique lead-in surface S is retracted or arched substantially equal to several times the wall thickness of the collar 30.

The figure is made up of several separate introductory languages 33. S shows a sloping lead-in surface. These tongues are shell-shaped protrusions with a roughly semicircular outline. The four lead-in tongues 33 are spaced at equal angles around the circumference of the entire oblique lead-in surface S, thus providing a wreath of inwardly curved pins. The externally convex oblongity of these is clearly shown in FIG

X * ΧΦΦ Φ φ · φ.χ Λ Φ φφ »« ♦ Φ XX ♦ Φ φ Φ φ φ φ

V ♦ φ ΦΦΦ Φ «« * χ

X »Φ V -V * Φ φ Φ Φ Κ

ΦΦΧ ΛΦ Φφ ΦΦ χφ φ φφ consists of hemispherical heads. It can be seen that this can be easily introduced into the circular spout 14 even if the insertion is not linear in the longitudinal centerline x-x, as shown in FIG. Further stopping will move the collar 30, which is slightly oblique, to the same coaxial position as shown in FIG.

According to another development, the closure cap 1 is completely closed but has a separate cover 34 on its outer side. The closed design means that there is no breakage in the inside of the development of the collar 30 in the form of a hollow plug, the collar 30 acting on the seal.

The cover portion 34 is spherical and may serve as an information carrier for the illustrated lock V. The flat-faced rim of the spherical-shaped cover portion 34 is associated with the closure cap 1 on a suitably planar sloping portion of the closure cap 1. The lid 6 has a flat portion 35 of cover. The oblique direction is in the direction of the major axis of the package having a properly formed elliptical cross-section.

The cover portion 34 is associated with the cover portion portion 35 in the path of the latching comb. For this purpose, locking projections 36 extend from three spaced apart edge portions 36 of the cup-shaped cover portion 34. These extend below the respective lower sides of the locking holes 37 in the cover 6.

As shown in Figure 20, the flat surface portion 35 is recessed in the size of the outline 34 of the cover portion. Thus, the rim of the cover portion 34 is carefully clamped and the latch projections 38 are relieved.

The further embodiment shown in Figs. 17 et seq. Also has a rotation stop stop for a screw-on end cap 1. This is achieved by directly forming the stop bar 19 on the stop surface 13 of the locking lever 5. Reference is made to Figures 21 and 24. In these figures, it is also shown that the strut 19 cooperates with the steep side 40 'of the neck 40 which acts as a spacer. The necklace 40 is the bottom of the bottle neck 2 ίχ «ί

It lies on the part of X ♦ ♦ ♦ ΦΧ φ * φ φ * φ and starts from the base 10 on the one hand and from the annular wall of the bottle neck 2 on the other. The neck 40, which is easy to produce with a blower, has a backside 40 'from the steep side 40' to the broad sides of the elliptical bottle cavity and extends to the base 10. This is essentially the same as the threading of the locking lugs 4. The 40 ”back of the neckline near the outer wall contributes to the threading.

In the end-twisted end position, the stop surface 18 of the bar 19 is tightly seated against the

40 'steep to the side. At this point, the stopper and the stopper are positioned such that the stopper cap 1 is also positioned exactly with respect to the contour of the elliptical base.

The same applies, of course, to the abutment height of the closure cap 1 outlined above.

The mess! direction is clockwise,

The ring R is particularly stable when the back of the latch 5 or the stop member 19 is stiffened by a comb 41, the comb 41 being located in the major axis of the elliptical cross-section. One of the wide sides is flush with the abutment surface 18. The combs 41 applied in the same way are out of the inner wall on the cover side of the closure cap 1. By comb 41, the locking lever 5 has a T-shaped cross-sectional profile. The stem of the T points outwards. The comb 41 towards the base 10 ends at the height of the deepest upper start of the sections 16 at the latch 5. The end there is deeper than the highest elevation of the neck 40. thus, there is a partial overlap. The paired elements here also allow optional assignment in roughly 180-degree angled ranges. Since the threads are diametrically opposed to each other, the angular rotation range is far below about 110 ° for the unscrewing.

The embodiment of Figs. 17 and following includes further elements for securing the closure cap 1 against unintentionally unscrewing, in particular by means of the 1 * *** Φ ΦΦ Λ Λ φΦ ΦΦΦΦ «ΦΧΦ

Φφ »β φ Φ X χ Φ φ Φ Φ ♦ Φ νφ ΦΦΧ X φ * * * * X Φ φ * φ * Φ

ΦΦΧ ΧΦ φφ X * φ φ. Alapján φ.χ on the basis of a reversible audible assembly between the cap and the 3 bottle jars. The sound effect is also enhanced by the old shape of the resonator of the closure cap 1.

The construction specifically consists of it. that the end cap 1 has a spring elastic flange 39 on the inside. This torsion screw cooperates with the stationary peripheral arches 38 of the bottle vessel 3 to reach the end position. The peripheral ribs 38, which are oriented towards the center, have a disadvantageous disadvantage, and these flanks 39 run counterclockwise. The restoring force and play are such that a protruding steep solution of the flanks 38 is surely achievable. For the purpose of unscrewing the cap of the end cap 1, additional force must be exerted in addition to the normal rotation force. The locking force is so great that the usual mechanical loads of the closure cap 1 do not raise the protrusion of the flange 38 and the flaps 39.

The protection against unintentional twisting of the closure cap 1 is an even design.

As can be seen, the flanges 39 extend in the form of vertical slats from portions of the inner wall of the closure cap 1 near the flange. The narrow sides of the flanges 39 are not connected to the inner wall over the entire vertical length. In the embodiment shown in FIG. 4A, the flange 39 retains an unbound, free-springing portion which forms a particularly well-springed tongue 39 '. The flange 38, which does not omit the corresponding free space 42, is also indicated by a reference 39 'relative to the tongue (Figure 21). In particular, Fig. 24 is a clear view of the free space 42 facing downwardly towards the base 10. The freely springing tongue 39 'obviously does not need the socket circumference 10; to the oblique section. It is sufficient if there is free space for the mobility of the tongue 39 '.

With reference to Figure 25, there is described a further improvement of the lock of Figure 5. The 4 latch projections there are perpendicular to the ring with the longitudinal x-x centerline. It has been suggested that the connection system described is suitable for preformed 3 pa20

laokedényekhez. Since the blank is produced by injection molding molds for such bottles 3, the locking projection 4, called the snap-on rim, is very stable and non-flexible, the upper side of the locking projection 4 being horizontal, i.e. not having a commonly used slope slope. Thus, it is not possible to achieve a centrally acting deflection for the R ring. However, in order to ensure an interference-free collision of the closure cap 1, it is recommended that the portion 16 of the ring R projecting below the locking projection 4 after the assignment is completed is inclined relative to the longitudinal x ~ x. This allows the closure cap 1 to break through with a minimum of this special design of the locking strap, i.e. the R-ring, which also increases the horizontal component of the back-cut force directed towards the center. This also improves the locking and solid fit of the bottle container 3 as a whole.

The adjustment angle indicated by p in FIG. It is understood that the correct inclined position need not be limited to the longitudinal portions of the R ring which are subject to the hook action of the locking projection 4.

It can be seen that the sections 16 and sections have a rhomboidal cross-section.

The parallelism of the narrow edges of the sections 16 is therefore such that the tapering projection 12 is sharpened near the bottle neck 2. The projecting end 12 protrudes outside the flange of the locking projection 4, so that there is no delayed contact of the lower end, at least the funnel formed by the uterus 16, or its vessel-side edge is larger than the outer diameter of the locking projection 4.

27 to 37, the dispenser or wrapper with the V-lock is shown. 4A to 4B. This version of the V lock is built in principle in the same way as the previous ones. References are used, mutatis mutandis, without repeating the text.

In this version there are elements with which the 3 self 14 clone ·> ί

JC «

The relatively large free cross-section of the mandrel opening which is favorable for loading can be changed to a smaller cross-section. so that you can switch the injected beam instead of the jet. To this end, the injection port 14 is associated with an injection cartridge E. This is formed by an intermediate cap 43 having a small cross-sectional injection port.

The intermediate cap 43 is provided on a central injection tube 44 to form a powerful, stable injection jet. This intermediate cap 43 is formed on the cover 45, stands up and expands at the end.

The intermediate cap 43 is locked over the rim of the bottle neck 2. The locking elements are on the outside of the bottle neck 2.

For this purpose, the locking flange 46 extending outwardly from the rim 31 of the bottle neck 2 extends. Below this lower side 47, latches 48 extend. Their side actively engaged in locking extends in the same plane to the said lower side 47, which is perpendicular to the longitudinal center x-x of the larger projection 14 of the bottle neck 2.

A total of four latches 48 are formed at the same angular distance between the latches. 46 cover.

The latches 48, when viewed vertically, occupy the generous lower half height of the annular wall of the cap flange 49. The backside of the latches 48 is inclined in a typical nose-backs fashion so that it can be flushed through the latch 48 with moderate or slight forces,

The latches 48 are cut out in a window-like manner on the backside, i.e. above the horizontal, to facilitate their radial ejection. The resulting 51 ·: η

X * ΦΦ »♦ -ΦΦΦΦ ♦ Φ φ φ ♦ φ4 6 χ

The window partially extends into the annular wall of the cap flange 49 of the intermediate cap and, depending on the width of the latch flange 48, extends to the area of the lid 45, which is the circumferential hook width. In addition to the aforementioned spring capacity, the advantage of manufacturing technology is that there is no need to cross-bend the mold cores.

The intermediate cap 43 has a collar 30 similar to the one shown in Figs. 17 and following for sealing. This is formed as an annular wall extending from the underside of the lid 45, which is also rounded inwardly towards the free end. The upper part has the same stru-like effect as described in detail with reference to Figures 17 and the following, such that by the filler fitting, the collar 30 in the spout 14 passes through the oblique inlet surface S on the side of the bottle 3. are introductory languages. Further details in the scope discussed above also apply and will not be repeated.

The injection nozzle 44 is closed in its closed position by the stopper 1, which is provided by a stopper 52 which extends vertically from the lid 8 on the inside. It has a hemispherical end and a cylindrical outer wall along the remainder. The rounded end portion of the plug 52 and the upwardly facing knot 53 facilitate the insertion and then create a hose connection. In a wedge-like recess, there is a circumferential flange 54. From this point on, the beak 53 extends again towards the neck of the bottle 2.

In addition to this internal centering design, an external centering effect is applied between the closure cap 1 and the injection cartridge E, more particularly the injection nozzle 44. Specifically, this means that a pivot funnel 55 is formed which extends through half of its length into the centering shaft 58 of the injection beaker 44 and the centering funnel 55 in front thereof is formed by thin-walled radial slats 57. The latter are from the inside of the lid 8 'V'), <Λ

ΦΦ ♦ * $ * Φ Φ φ Φ Judge

X Φ ΦΦ Χφφ φ χ * * * * φ φ * * φ

ΦΦ Χφ φφ Φ φφ start out. The funnel and shaft forming silhouette is formed by the narrow edges of the radial beams 57 on the inside with a total of six radial beams 57 spaced at equal angles.

As shown in the figures, at their blade edges 57, i.e. at their backside, an annular wall 58 is connected together by a cylindrical annular wall, the closure cap 6 also starts.

This sumptuous old

In the closed position of the package, the lower front wall of the annular wall 58 terminates shortly before or on the upper side of the lid 45 of the injection cartridge E.

The spherical forkoum 44 'of the injector beak 44 is flattened in a plane by the oblique inlet surfaces 59 of the center pointing funnel 55 towards the lid 8, and is located circumferentially on the non-oblique sections of the pointing shaft 58.

With regard to the design of the ring R formed in the closure cap 1, it should also be noted that the legs 15 of the sections 18 extend from the inside of the wall of the closure cap 1. The stems 15 extending in parallel have a wall passage 80. The design is particularly well illustrated in Figures 31 and 33. This ring R is the same as that shown in Figures 1 and 7, but the ring-closing bridge between the two legs 15 is not formed by a latch 5, but by the wall portion 81 between them. Because the cap wall is thin, the desired springing ability or reducing reset capability is also present. The references are incorporated herein.

As can be seen in a further version, it still has a child safety feature. This is achieved by providing longitudinal locking cams 82 close to the edge of the wall of the closure cap 1 and extending on the inside of the cap. These extend over 81 fairways of the ring bridge and cooperate in the lower part of the bottle neck 2

Φ ΦΦ X «φ * χφφ-φτ ΦΦΦ» ♦: # ♦ ♦ Φ »# χ Φ φ φ φ * Φ φ φφ S> X * * * * * * ΦΦΦ χ *

ΦΦ * »Φ ΦΦ Χφ # φ. Φ φφ with axial cams 83. On the backside of these, it is possible to run through the direction of rotation of the closure cap 1. In its end position, the locking portion 62 of the locking cam 62 extends locally in front of the radially steep side 84 of the locking cam 83. up, which is restored after release,

Referring again to Figure 38, the four latches 48 extend radially outward when the injector nozzle strikes the bottle neck 2 (see the position shown by dotted lines). At this point, the arcuate portions 66 of the annular wall of the cap of the intermediate cap 49 are positioned in a straight line or secant-like position 85 'shown by dotted lines. This radially opposite ring wall deflection is used as a stored restoring force, so that the latches 48, once overcome by the latching flange 48, are again firmly retracted into the sliding latching position (see Figure 27).

The market cup 3 is designed as a collapsible bottle,

38-40. FIG. 4A shows a basic configuration of the lock V of FIG. 4 or 25. Here, the preformed pawl neck 3 has a fully piercing latch projection 4 on the pawn neck 2, on which the R-ring may pass through the plug-in assembly, but can only be counteracted by destroying the R-ring. This usually means tearing off the R-ring at least at one of the latches 5. This ensures originality. However, the reducing force of the R-ring is so great that the packaging can still be used, i.e. the closure cap 1 snaps into place. In this basic embodiment, it should be noted that the ring R has a forced tear 88 as shown in FIG. This can also be formed as a V-shaped notch extending from the uppermost lower projection 12 of the R ring. This 8? notching makes the R-ring hinged even more extensible, which facilitates the desired irreversible plugging, and

Φ ♦ »* φφ φχ ΦΧΧ» ** * * β χ Φ * 9 φ φ

X Χ · X X ♦ X φ .χ φ. φ. φ

Φ Φ Φ X Φ Φ 4r χ X X φ

It mellett φφ χ φ φ φ φ φ φφ φφ it kim it kim kim kim kim mellett kim mellett kim kim mellett mellett kim kim it kim it it it mellett mellett kim mellett kim kim kim it it it it kim mellett mellett mellett φφ mellett φφ φφ φφ mellett φφ kim φφ φφ φφ it mellett φφ mellett mellett φφ mellett mellett mellett φφ φφ φφ mellett mellett mellett φφ φφ φφ resulting in an outward expansion when passing through the 4 latch projections. This is further facilitated by the angular position β of the ring R and the band forming the ring, as discussed in connection with FIG.

At the same time, the hook effect is so strong that under certain circumstances a single section 16, which is formed either as a semicircle with the lugs 5 attached to the latch, or as a complete ring. In any case, the underside of the locking projection 4, together with the narrowing effect of the ring R, creates a permanent tightening of the seal V to the container 3, thus creating a self-sealing seal. In addition, due to the oblique position and restoring power of the R-ring, the proper grooming ability produces, in particular, a lyric bar spring effect.

The ring R may then have intermittent flat iv shaped cubicles 68 as shown in FIG. These are open towards the 10 sockets. Such cabs 68, spaced a distance from the locking arms 5, are also advantageous in terms of the spring effect and easy adjustment of the R-ring,

In the variant of Figs. 38-40, according to the further development, although the ring R is strongly locked below the horizontal underside of the locking projection 4, the closure cap 1 can still be removed without damage from the preformed market receptacle 3. rotate. Close to the base, the oval, more elliptical cross-sectional closures 1 are simply rotated back and forth about the longitudinal x-x centerline of the packaging, as shown in FIG.

It works! In its embodiment, the horizontal ring R cooperates with a control shoulder 69 having an oval contour. The shoulder 66 is formed on the lower part of the neck neck 2, that is, directly molded thereto. Over 10 sockets

-ΦΦΧ »ΦΦ $ · ♦ φφ« «χ <* Φ * ♦ Φ Φ» 4 Φ Φ * H φ

Μ * φ φ XX Φ Φ

X φ Φ φ Φ χ χ * * * * * Φ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ χφ At the location adjacent to the stems 15, the R-ring is also suitably oval or elliptical. Reference is made to Figure 39. The longitudinal axis of each oval is in the longitudinal oval axis of the container 3. The guide shoulder 69 and the ring R cooperate so that the narrower free portion 70 of the ring R, when rotated relative to the locking projection 4, expands beyond its diameter. Thus, when properly released, the ring R and thus the closure cap 1 can be conveniently detached in the axial direction, since the larger diameter, i.e. wider section 71 of the R ring in this position is only thinned so that there is no averaging, i.e. locking effect. The position of a suitable pull-off achieved with a rotation angle of 9G is clearly shown and understood in Fig. 40. The small oval axis of the lock latch or ring R is widened by the large oval axis of the bottle contour when the locking grid screw is slit, moreover, the cubicles 88 engage snugly against the R ring as the upper edge of the guide shoulder 69 reaches the height of the base.

Additional references are provided for clarity, but the text spaces are not repeated.

Referring to Figures 41 and following, improvements to the screw version will be referred to individually. The main difference with the solutions described above is the coding design. This must ensure that the lock and the container are precisely matched. For this purpose, the R-ring has two different half-circles 16 '. 18 ”and has a counter-piece that fits or excludes on the side of the vessel. These sections are indicated by strokes in the motion study of Figures 48, 50, 51 and 53.

This solution is useful for vessels with asymmetric shapes, i.e., where the shapes are to be maintained optically and visually without interference between the two basic components of the container, i.e. the closure and the container. Concerning the construction, this means in particular that a portion of the ring 16 'in a closed position in a folding space 72 is 2 paΦΦΦ ΦΦΦ »· *> ·?

íi / »♦» χ φ: φ λ * Φ φ ν

Φ ΦΦ »φ.φ Φ φφ φ χ * Φ Φ X 4 X ♦ Φ Φ φ χ ΦΧ * Φ * ΦΦ φ, φ ΧΦ φ φφ lacknyak abuts first, 4'reteszkiugrására, while the closure cap 1 rotated through an angle of 180 ^ö In its position, the same section 18 'lies on a second locking projection 4' facing the undercut area 72 of the first latch projection 4 ', without the tip being prevented from being pulled upwards, i.e. away from the container 3. This is particularly evident in Figure 41. It is also shown in this figure that the second and the other 16 'sections of the R ring are associated with the second latch projection 4' in the collar neck 2 in an undercut space 73. This second section 18 'lies on the comb T of the first latch projection 4' in its enlarged circumferential portion T at the rotated position 180 ^{3 of} the closure cap 1, without hindering the pulling.

As you can see, the second 4 "latch projection has a portion of the circumference that is circumferential. On the other hand, it has a horizontal collar 74 for the remainder of its circumference.

The circumferential lengths extend one by one to the quarter circle of the R ring. The first latch projection 4 'extends along a semicircular circumference in a helical direction,

The object of the present invention, as described in the introduction, is based on the basic symmetry of the seals V which cooperate with the bottles 3. Accordingly, the tight fit into random character there, i.e. the closure V and 0 ^ö per ₁₈₀ ° of total as compared to this! can be fitted in a rotated position, the optimum closure of the AV closure with the container 3 is always achieved. The latter version should allow for properly paired connections in asymmetries. Thus, here, there is only one fixed position between the contour of the seal V and the container 3 in the contour, which is no longer the case, for example, when turned by 18 °. Consequently, there is a requirement for the design to be optimized so that the closure and the container can be paired in only one position, which ensures an equal distance in the contour. All other positions are compulsorily blocked. In the following, the structural relationships are discussed in more detail. Comparison of Figures 42 and 43 shows example28 * ΦΦ ΦΦ φφ X Φ ί Φ X Φ X t t t t t t t t t t t t t t t t t t t t φ X

For example, the height 75 of the band or section 16 'is greater than the height 76 of the band or section 16 of the R ring in Figure 43, respectively. The difference in height H can be seen on the 41st. Tape A or section 16 further has a hub with an upper side 77 extending from the center plane. It cooperates with the 74 horizontal collars. The container 3 has the following structures: vertical manifold tops, i.e. comb height 75 'and 76' (see Figure 45). The height 76 'is apparently greater than the height 75'. While the shape of said horizontal collar 74 of the mandrel 75 ', i.e. the locking projection 4', is continuous (see Fig. 46), there is a horizontal line from the center of the thread.

Rotating the lock from 0 ° position (Fig. 48-50): In this initial position of the lock prior to screwing, the coding is ineffective. The height 76 is easily reduced below the thread profile element 76 '. The horizontal passage of the lower thread profile side of the bottle vessel 3 is followed, approximately from its center, by the horizontal upper side 77 of the R ring, which is also approximately the center slider (refer to Figure 48). This constellation is also recognized in FIG.

The hook-like protrusion of the R-ring is located at the location of the 73 deflection space. Figure 50 shows the opposite pairing! Here, the penetration of the R ring or the section 75 at the height 75 'below the tapping edge of the container 3 is shown. This is hell! 49 in FIG. 49 at the location forming the undercut space 72

Rotate the lock from 0 ° position to approx. From the starting position rotated by 18 ° (Fig. 5153): In this initial position of the lock before the torsion, the coding becomes effective.

Between the height 75 and the height 78 'of the thread profile, a height 78 is formed which does not allow the hook-like extension of the 16' portion of the R-ring there. On the opposite side, the horizontal passage, i.e., the part T, blocks the protrusion on the threaded profile side, i.e.

75 · 'height. Here, it is woven from the 72 extension areas.

Φ ΦΦ ΦΦ φ »ΦΧΦφ« ΦΦΦ

XX Φ Φ $ X Φ β 9 «φ

Φ χ χ φ φφ »φ« Φ «♦ Φ * * φ Φ ♦ χ χ φ ** ♦ φφ φφ Φ» φφ χ Φ »

V is locked and 3 is not

It is not possible to open or lock the lock.

The AV lock, however, remains rotatable and retains approx. After turning 180 ^c , it moves to the 0 ° position. Thus, once again, a form-fitting underside between the locking strap of the closure and the male profile of the container is possible.

All the features described are relevant to the invention. This patent application includes in its entirety the accompanying priority documents and / or the attached priority copies (a copy of the prior application), also for the purpose of incorporating the features of those documents into the claims of the present application.

Claims (16)

PATENT CLAIMS 1. Closure cap for a bottle receptacle having a collar into the opening of the bottle receptacle (3). characterized in that the collar (29) is provided with an oblique inlet surface (S) connected to the flange (31) of the spout (14) and the inlet surface (S) has a plurality of externally convex, curved, separate inlet tongues formed. A closure cooperating with a bottle receptacle having a collar connected to the funnel opening (14) of the container, characterized in that the collar has an oblique inlet surface (8) connected to the flange (31) of the spout opening (14). a curve formed of a non-rigid introductory tongue and the tongue tongues (33) being curved from the outside, Closure cap according to claim 1 or 2 or a closure cap cooperating with a bottle container, characterized in that one of the inner edges of the flange (31) is provided with an obliquely inclined chamfer (32). 4. Closure cap according to any one of claims 1 to 6 or a closure cap cooperating with a bottle vessel, characterized in that the flange (31) has the same wall thickness as the bottle neck (2), Closure cap according to any one of claims 1 to 4 or a closure cap cooperating with the bottle, characterized in that the collar (29) is centrally extended 6. A closure cap according to any one of the claims or a closure cap cooperating with a bottle, characterized in that the collar (29) is for a publisher (23). * · «· 0 * * ♦ 0 «X X «** X 0 ♦ 0 »« 0 * X HX00 «0 0« • * 00 * »♦ 0 * 0 0 0 0 It is concentric with 0 * * 00 7. Closure cap according to any one of claims 1 to 4 or a closure cooperating with a bottle, characterized in that the collar (29) is designed such that it closes without an opening in the top of the closure cap (1). Closure cap according to any one of claims 1-7 or a closure cooperating with a bottle, characterized in that the tongues (33) are equal to five times the wall thickness of the collar (30). 9th cooperative closure cap, characterized in that the slope of the lead-in slope is the lock (V) stone (x-x) 10. A closure cap according to any one of the claims, or a closure cooperating with a bottle, characterized in that it has four leading tongues (33) distributed at equal angles, 11. Closure cap according to any one of claims 1 to 4 or a closure cap cooperating with a bottle, characterized in that the collar (29) is designed as an annular wall projecting from above. 12. Closure cap according to any one of claims 1 to 6 or a closure cap cooperating with a bottle, characterized in that the collar (29) is a sealing collar. 13. Closure cap according to any one of claims 1 to 6 or a closure cap cooperating with a bottle, characterized in that the collar (29) is formed as a hollow plug. * «« «A AA $ 4 A AAXK« X «« A A * X A A 9 A * A * A AAA ΆΑ «¥» * «* *. * A «X A A A A A» kx A A AA AA XA A AX A zero cap or a stopper cooperating with a bottle according to any one of claims 1 to 13, characterized in that the four inlet tongues (33) are formed as an inwardly curved ring. 15. Closure cap according to any one of claims 1 to 4 or a closure cooperating with a bottle, characterized in that the inlet tongues (33) are formed as a hemispherical head. A method of pressing a closure onto a bottle, which bottle is provided with a collar (29) associated with the pouring of the glass, wherein the collar (29) is inclined at the snap and is formed by a plurality of separate, externally convex, with a curved guide tongue (33) facing in an inclined alignment position in the same axial direction through an inclined guide surface (S) U 'V :: C: ρφί, ϊίχ © A ;: _; í beat US, «