![]() Device for preserving beverages
专利摘要:
In a closure element for liquid containers, in particular bottles, comprising a stopper engaging in the (neck) opening of the liquid container and a cap covering the edge of the neck opening, the stopper having an inlet channel passing through it and possibly an outlet channel, the inlet channel and optionally the outlet channel provided with an inlet or outlet valve, which is designed as a pressure relief valve. 公开号:AT517242A1 申请号:T367/2015 申请日:2015-06-11 公开日:2016-12-15 发明作者:Manfred Jüni 申请人:Innveri Ag; IPC主号:
专利说明:
The invention relates to a closure element for liquid containers, in particular bottles, comprising a stopper engaging in the neck opening of the liquid container and a cap covering the edge of the neck opening, the stopper having an inlet channel passing through it and optionally an outlet channel. The invention further relates to a device for preserving liquids in the home with the aid of a protective gas, comprising at least one connectable to a gas reservoir or this exhibiting handset, which has its own, the inert gas optionally releasing or restrained valve to the delivery of the protective gas from a dispensing side Release or withhold the end of the handset. In the context of preserving foodstuffs with the aid of a protective gas, the term MAP is used in the packaging industry (Modified Atmosphere Packaging = MAP). For the purposes of the invention, a container is to be understood as meaning any container which serves to hold liquids, such as e.g. Bottles, jars, canisters, and the like A device for preserving food can be found, for example, in EP 1145640 A1. It serves to fill the volume of the gas-tight food container with an inert gas, and in particular, for example, carbon dioxide (CO2), at the same time the existing air in the container must escape. During this purging process, inert gas is introduced via an inlet valve, with air simultaneously exiting via a separate outlet valve. The foodstuffs stored in the food container are in a protective atmosphere after the rinsing process, so that the shelf life is decisively improved. In the prior art (e.g., WO 2009/147506 A2), specially designed food containers, particularly with inlet and outlet valves, are provided to facilitate MAP packaging. The storage of food in specially designed containers has proven itself in practice. In the case of storage of liquids, however, it is not necessarily practicable to recycle the liquid into a separate container in order to use the MAP technology. In particular in the case of drinks, e.g. Wine, sparkling wine or champagne, it is desirable to make the protective gas in the original bottle The invention therefore aims to allow the MAP packaging targeted for liquids in containers in the household and in the catering and to provide the corresponding components of an overall concept, so that it is possible for the end user without much effort, the freshness and quality of the liquids receive. After each opening of the container, it should be able to rinse or provide it with protective gas briefly and simply after resealing, and thus be able to store the liquid in an optimum atmosphere and / or under overpressure. To solve this problem, the invention provides a container closure, with which the beverage container, in particular the bottle can be closed and which is equipped with the required channels and valves to allow filling and / or rinsing of the container with inert gas. The closure according to the invention comprises one in the (neck) opening of the Liquid container gripping stopper and a cap covering the edge of the neck opening, wherein the plug has an inlet channel passing through this and optionally an outlet channel, wherein the inlet channel and optionally the outlet channel is provided with an inlet or outlet valve, which is designed as a pressure relief valve. The plug and the cap portion of the closure are in this case connected to one another to a common closure part or integrally formed. The closure allows a filling and / or rinsing of the container with inert gas in the closed state. Protective gas can be passed through the closure into the container interior via the inlet channel and the inlet valve, wherein the inlet valve is designed as a pressure relief valve, so that the inlet valve opens automatically as soon as the inert gas supplied by a protective gas source is present with a sufficiently high gas pressure. After completion of the filling or rinsing process, the inlet valve closes automatically. For the outlet of the air in the container and possibly the protective gas from the container, a separate from the inlet channel outlet channel may be provided with an outlet valve, which is also designed as a pressure relief valve. The gas outlet from the container takes place as soon as the gas pressure in the container exceeds a predetermined limit. On the provision of an exhaust passage including exhaust valve but can also be dispensed with, if no flushing, but only a filling with inert gas is desired. The following operating variants are conceivable with the container closure according to the invention: a) "rinsing and overpressure": The air in the container is completely or partially replaced by the protective atmosphere, the introduction of the protective gas being continued until a defined overpressure in the container is reached. This variant is usually used in all forms of liquids, which must be protected from oxidation and in which, depending on the field of application also the bubbling of the carbon dioxide should be avoided. The container should have a sufficiently low permeability to oxygen / gas, thus having strong barrier properties, otherwise too much gas can escape. In general, in the case of carbonated liquids, an overpressure of 1-4 bar should prevail in the container and to prevent oxidation, a residual oxygen content of 1 to 2% should not be exceeded. In order to facilitate both purging and overpressure, the closure according to the invention is provided in addition to the inlet channel with an outlet channel, wherein the inlet and the outlet valve are coordinated so that the inlet valve opens at a lower pressure than the exhaust valve. This ensures that first the inlet valve is opened and then a continuous pressure build-up in the container interior until the opening pressure of the outlet valve is reached. Upon reaching the opening pressure of the outlet valve, gas escapes from inside the container until the desired degree of gas exchange or purging is achieved. Thereafter, the supply of the protective gas is reduced or interrupted immediately, so that also closes the inlet valve. Due to the different opening pressure values of the inlet and the outlet valve remains after the completion of the gas supply, an overpressure in the container interior. b) "Rinse": The air in the container is completely or partially replaced by the protective atmosphere. This is typically used in all forms of liquids which must be protected from oxidation and in which the container has a sufficiently low oxygen / gas permeability, otherwise too much gas may escape. Generally, the residual oxygen content in such containers should be less than 1 to 2%. At higher oxygen levels MAP can not be used optimally in terms of oxidation protection. The described procedure requires a closure which has both an inlet and an outlet channel. The opening pressure of the outlet valve is in this case selected equal to or smaller than that of the inlet valve. Alternatively, an outlet valve can also be completely dispensed with, so that the air present in the container can escape unhindered and, after the end of the rinsing process, essentially no excess pressure remains in the container. c) "Overpressure": The protective gas supplied serves to pressurize the container through the protective atmosphere and also protects the protective atmosphere from the liquid. Closing systems that are suitable for "overpressure" mode need only have an inlet channel but not an outlet channel, and the container must have a sufficiently low oxygen / gas permeability, otherwise too much gas may escape be achieved by 1-4 bar in the container to prevent the bubbling of carbon dioxide. Crucial in all three variants is that the inlet valve and possibly the exhaust valve are opened by the respective gas pressure, so that it requires no manual operation and the construction can be taken correspondingly simple and space-saving. According to a preferred embodiment it is provided that the inlet and the outlet valve can be actuated independently of one another. In order to create a design as small as possible, in which the arrangement of the inlet channel and the inlet valve and possibly also of the outlet channel and the outlet valve within the cross section of the container opening, in particular in the bottleneck succeeds, it is advantageous to the closure of the smallest possible number of components reassemble. A preferred embodiment provides in this context that the plug comprises a plug body made of an elastomer, which has at least one sealing lip on its outer circumference and which forms the deflectable by the applied pressure over the sealing body of the inlet and / or outlet valve. The plug base body thus not only ensures the function of the outer seal with respect to the container opening, in particular the neck of the bottle, with the aid of the sealing lip, but at the same time also forms the sealing body of the inlet valve. Preferably, the sealing body is in this case formed as by the applied pressure radially expandable sleeve. In particular, the sleeve-shaped sealing body surrounds a mandrel, at the peripheral surface of which at least one bore of the inlet channel opens. As soon as the gas pressure in the bore exceeds a certain limit, the elastomeric sealing sleeve is radially expanded, at least locally leaving its position adjacent to the mandrel, thereby releasing the bore mouth so that the gas can flow between the mandrel outer surface and the inner surface of the sealing body. The elastomeric plug base body preferably has an annular flange-like extension extending from the plug, which covers the edge of the container opening and thus forms part of the cap. It is preferably provided in this context that the inlet channel opens eccentrically into the container opening, in particular the bottleneck. By such a geometry of the closure system, an air flow is generated within the container so that the introduced inert gas displaces the air present in the container and thus ensures that the introduced inert gas due to the advantageously generated circular flow inside the container in a short time fills the entire volume, without in this case too large amount of the protective gas is lost by outflow again. In a preferred manner, the design is developed in such a way that the inlet valve is arranged radially offset from the outlet valve and the gas flow at the inlet valve is guided so that the desired circular flow is formed in the container. Advantageously, the cap has a substantially centric inlet port communicating with the inlet port for attachment or connection of a source of inert gas. The inlet opening is designed so that the discharge-side end of a hand-held device for dispensing the protective gas can be recognized. In order for the handset in the position set on the inlet opening of the closure not to hinder the escape of gas leaving the container interior, it is preferably provided that the cap has a preferably annular outlet opening which is arranged radially outside the inlet opening and communicates with the outlet channel. The gas thus exits radially outside the handset. In order to prevent the liquid possibly entrained with the escaping gas from spraying the user, a preferred embodiment provides that the outlet channel opens via at least one radial bore into an outlet chamber, which communicates with the environment via the outlet opening. The gas together with any entrained liquid thus passes first in the radial direction into an outlet chamber arranged in the opening region, where susceptible liquid is decelerated and can collect, and from where the likewise braked gas can finally leave the closure axially via the outlet opening. In terms of design, an advantageous embodiment results with as few parts as possible if the inlet opening and possibly the outlet opening are formed in a cap base body, which is connected to the stopper, in particular the stopper base body, in particular in this. Furthermore, it can be provided here that at least one section of the outlet channel is formed in an insert part inserted into a recess of the plug, in particular of the plug base body, in particular inserted. The insert preferably forms the projecting end portion of the inlet channel. In certain applications, such as the preservation of carbonated liquids such as champagne to account for the generated overpressure in the container, the closure may be equipped with retention straps. Thus, the closure system is fixed on the container and withstands the overpressure. In particular, it is provided that two retaining clips are pivotally mounted on the cap. In addition to the closure system to be created with the invention, inter alia, a simple, handy and mobile handset that is characterized by ease of use and that meets the requirements in the home. The handset may be designed for a variety of uses, without the need for constant replacement of gas cartridges or the like. In addition, the handset can define the required amount of the protective atmosphere. Furthermore, safety problems in connection with the storage and application of gas under high pressure should be avoided. Conventional devices can be improved so that the structural complexity is reduced, in particular for the handset and the combination of a multifunctional closure system and the MAP technology, the preservation of liquids significantly simpler and safer. To solve this problem, the invention provides a device for preserving liquids in the household using a shielding gas, comprising at least one connectable to a gas reservoir or this exhibiting handset, which has its own, the inert gas optionally releasing or restrained valve to the delivery of Protective gas from a discharge-side end of the handset to release or retain, and further comprising a container closure according to the invention as claimed or described above. The hand-held device preferably consists of a housing with integrated gas reservoir, wherein the gas reservoir is received in the housing preferably in an exchangeable manner. As a result, gas storage tanks can be used with different gases or gas mixtures. As a gas storage container, for example, gas cartridges are used, in particular so-called small cartridges with a volume of e.g. 10-40ml. In the handset, a piercing spike can be mounted, which activates the gas storage container used. The control of the desired removal amount of the protective gas in the interaction with the Container closure system can be done by a built-in valve, which is opened via an actuator. In the flow direction downstream of the valve, a nozzle may be provided, in particular such having a flow cross-section which decreases in the flow direction. The Training is in this context preferably designed to the effect that the valve of the handset has an actuating member which is designed as a movable against the force of a spring valve member or cooperates with this. The hand-held device thus makes it possible to supply the protective gas via the container closure according to the invention to a container without being coupled to a fixed stand-alone device. The operation of the integrated handset valve can be done with the help of an operating knob or also due to the attachment of the handset on the container closure, whereby the actuator of the handset is displaced. A preferred embodiment in this context provides that the container closure in the region of the inlet opening comprises a protruding mandrel, which shifts the actuator of the handset valve when attaching the discharge-side end of the handset to the inlet opening and opens the valve. The invention will be explained in more detail with reference to exemplary embodiments illustrated schematically in the drawing. In this show Fig. 1 is a sectional view of a Gas storage container containing handset, 2 is a sectional view of an embodiment of a bottle closure unit according to the invention in an exploded view, 3 shows a sectional view of the bottle closure unit according to FIG. 2 in a state inserted into a bottle neck, FIG. Fig. 4 is a sectional view of a modified Forming the bottle closure unit in a state used in a bottle neck, and Fig. 5 is a sectional view of Bottle closure unit according to FIG. 2 in the actuated state with attached handset. In Fig. 1 shows a handset 1, which serves to receive a protective gas reservoir 2 and the controlled release of the protective gas via a discharge opening 3. The handset 1 has a housing 4, which is closed at the back by a cap 5. In the removed state of the housing 4 incl. Cap 5, a protective gas reservoir 2, such as a gas cartridge in the Protective gas reservoir receptacle 19 are used. The handset 1 further has a piercing element 6, which has a protruding in the direction of the gas reservoir 2 hollow needle 7, which is suitable to pierce a sealing cap 8 of the gas reservoir 2. In the pierced state, the interior of the gas reservoir 2 via the hollow needle 7 with the valve chamber 9 of a valve 10 in connection. The valve 10 has a in the axial direction against the force of a spring 11 displaceable valve member 12, the sealing surface rests in the closed state of the valve against a component 13 formed on a valve seat. The valve closure member 12 has an extension 14 which has a cooperating with an actuating pin 15 stop surface. The actuating pin 15 extends to the discharge opening 3, where it provides a stop surface 16, which cooperates with the container closure by means of a mandrel which will be explained in more detail later. When attaching the handset 1 to the inlet opening of Container closure, the actuating pin 15 is displaced in the direction of arrow 17 to the rear and actuated via the extension 14, the valve closure member 12, whereby the gas flow from the protective gas reservoir 2 via the hollow needle 7, through the nozzle 20, the valve chamber 9, the open valve seat on the component thirteenth , the flow chamber 18 and the ÄBgabeöffnung 3 is released. As already mentioned, the gas flows after the hollow needle 7 through a nozzle 20 whose flow cross-section decreases in the flow direction, so that the volume flow of the gas can be reduced accordingly. The pressure relief valve 21 protects the container to be filled with the protective gas from too high pressure. Fig. 2 shows the closure according to the invention, via which the protective gas emitted by the hand-held device 1 is introduced into the closed container. The closure in this case has a plug 22, which is essentially formed by a plug base body 23, on whose circumference two circumferential sealing lips 24 are formed. The sealing lips 24 in this case interact in the state engaging in a bottle neck with the inner wall of the bottle neck in order to seal the closure accordingly. The plug base body 23 has an outgoing from the plug 22 annular, flange-like extension 25 which covers the edge of the bottle opening and thus forms a part of the closure cap. The plug base body 23 in this case consists of an elastomeric material. The bottle closure furthermore comprises a cap part 26 made of plastic or another hard material, which can be inserted or inserted into the plug base body 23, the required holding force being ensured by the extension 27 engaging in a corresponding recess 28 of the plug base body 23. The closure furthermore has a cap ring 29 which can be inserted into the cap part 26, a mating ring 30 and a combined inlet and outlet unit 31 which can be inserted or inserted into the plug base body 23. The closure shown in FIG. 2 has an inlet and an outlet channel with associated inlet and outlet channels. Exhaust valve on. The inlet channel together with inlet valve serves to guide the protective gas emitted by the hand-held device 1 through the closure into the container, in particular the bottle. The outlet channel including any outlet valve serves to allow the existing in the container, in particular the bottle, leak air, if flushing of the container is desired. The inlet opening of the closure is formed on the cap part 26 and designated 32. Inert gas, which is introduced via the inlet opening 32, flows in the sequence via holes 33, shown in dashed lines, which open at the circumference of a mandrel 34. In the state of the cap part 26 inserted into the plug base body 23, the mandrel 34 is surrounded by a sleeve-shaped sealing body 35 formed in one piece from the plug base body 23. The sealing body 35 in this case seals the mouths of the bores 33. If a corresponding gas pressure is applied to the mouths of the holes 33, the sealing body 35 is radially expanded and allows a gas flow through an annular space which forms between the outer surface of the mandrel 34 and the inner surface of the sealing body 35. The gas passes in the sequence in the combined input and Outlet unit 31 and flows there through an end portion 36 of the inlet channel into the interior of the container. If rinsing of the container interior is desired, the combined inlet and outlet unit 31 has an outlet valve 37, which comprises a flexible sealing cap 38 which is inserted into a bush-shaped part 39. The bush-shaped part 39 in turn is used in the assembled state in a corresponding recess 40 of the combined inlet and outlet unit 31. The bush-shaped part 39 has two bores 41, via which the gas escaping from the container flows, wherein the sealing cap 38 covering the bores 41 is elastically deflected with a corresponding overpressure in order to release the gas flow through the outlet channel 42. The outlet channel 42 opens into a connecting channel 43 formed in the plug base body 23, which opens into an annular chamber 44 formed in the cap part 26. The annular chamber 44 in turn is connected via radial bores 45 with an annular outlet chamber 46 which is formed in the closing ring 29. The gas can thus escape via the outlet chamber 46 and the outlet opening 47 into the open. Fig. 3 shows the closure shown in Fig. 2 in assembled and inserted into a bottle 48 state. As soon as a corresponding gas pressure is applied to the inlet opening 32, the inlet valve schematically indicated 49 opens, so that the gas passes through the end portion 36 of the inlet channel into the interior 50 of the bottle. In the gas volume of the partially filled bottle 48, a corresponding gas pressure builds up until the Outlet valve 37 is opened and the corresponding overpressure via the outlet channel 42 and the outlet port 47 can escape. The end portion 36 of the inlet channel is in this case arranged eccentrically and protrudes from the plug 22, so that in the interior 50 of the bottle 48, a circular flow is formed, which favors the purging of the gas volume. The escape of the gas from the interior 50 of the bottle 48 is also eccentric, via the outlet valve 37 diametrally opposed to the inlet channel 36. In this manner, purging of the gas volume, i. allowing escape of the air present in the interior 50 of the bottle 48. At the same time, due to the design of the outlet valve 37, an overpressure in the interior 50 of the bottle 48 is maintained. In Fig. 4 shows a modified embodiment of the bottle closure is shown, in which no outlet channel and, accordingly, no outlet valve is provided. The bottle closure is particularly suitable for carbonated beverages, such as champagne, in which primarily an overpressure in the bottle interior 50 is to be brought about. Deviating from the illustration according to FIGS. 2 and 3, the bottle closure now has two pivotally mounted retaining clips 51, which are designed to engage behind a circumferential shoulder 52 on the neck of the bottle. Notwithstanding the embodiment according to FIGS. 2 and 3, the plug base body 23 is not formed with a connecting channel 43, so that escape of gas from the interior 50 of the bottle 48 via the outlet channel 42 is not possible. In a further, not shown modification of the closure, although an outlet channel 42, but no outlet valve 37 may be provided. With such a design, purging of the gas volume of the bottle 48 is possible. The construction of an overpressure in the interior 50 of the bottle 48 is not provided. As an inert gas, which is filled into the bottle interior, for example, an inert gas, such as argon, and / or CO2 is provided. Preference is given to gases which are heavier than air, so that the protective gas deposits on the surface of the liquid present in the bottle 48, so that oxidation processes are prevented. Furthermore, the use of a shielding gas that is heavier than air, even with a design with an outlet channel, but without an outlet valve, causes the shielding gas to remain in the bottle. In Fig. 5, the handset 1 is shown attached to the inlet port 32 of the bottle closure position. The bottle closure is shown in the embodiment according to FIGS. 2 and 3, the interaction shown in FIG. 5 of the hand-held device 1 with the inlet opening 32 of the closure in the same way also for the modified design of the bottle closure according to FIG. 4 or the other modified training without exhaust valve applies. In Fig. 5 it can be seen that a protruding mandrel 53, which is arranged in the region of the inlet opening 32, the actuating pin 15 of the handset 1 when attaching the handset 1 in the direction of arrow 54 moves backwards, whereby the valve 10 of the handset 1 is opened is and the gas flow from the inert gas storage tank 2 is released.
权利要求:
Claims (19) [1] claims: A closure element for liquid containers, in particular bottles, comprising a stopper engaging in the (neck) opening of the liquid container and a cap covering the edge of the neck opening, the stopper having an inlet channel passing through it and optionally an outlet channel, characterized in that the inlet channel and possibly the outlet channel with an inlet or. Exhaust valve is provided, which is designed as a pressure relief valve. [2] 2. Closure element according to claim 1, characterized in that the inlet and the outlet valve are operable independently of each other. [3] 3. Closure element according to claim 1 or 2, characterized in that the plug comprises a plug body made of an elastomer which has at least one sealing lip on its outer periphery and which forms the deflectable by the applied pressure over the sealing body of the inlet and / or outlet valve. [4] 4. Closure element according to claim 3, characterized in that the sealing body is formed as by the applied pressure radially expandable sleeve. [5] 5. Closure element according to one of claims 1 to 4, characterized in that the inlet channel opens eccentrically into the container opening, in particular the bottleneck. [6] 6. Closure element according to one of claims 1 to 5, characterized in that the inlet channel has a stopper protruding, eccentrically arranged end portion. [7] 7. Closure element according to one of claims 1 to 6, characterized in that the cap has a substantially centric, with the inlet channel in communication inlet port for attachment or connection of a protective gas source. [8] 8. Closure element according to one of claims 1 to 7, characterized in that the cap has a radially outside the inlet opening arranged, preferably annular outlet opening, which is in communication with the outlet channel. [9] 9. Closure element according to claim 8, characterized in that the outlet channel opens via at least one radial bore in an outlet chamber, which communicates via the outlet opening with the environment. [10] 10. Closure element according to claim 8 or 9, characterized in that the inlet and possibly the outlet opening are formed in a cap body, which is connected to the plug, in particular the plug body, in particular inserted in this. [11] 11. Closure element according to one of claims 1 to 10, characterized in that at least a portion of the outlet channel is formed in a inserted into a recess of the plug, in particular of the plug body, in particular inserted insert part. [12] 12. Closure element according to claim 11, characterized in that the insert part forms the projecting end portion of the inlet channel. [13] 13. Closure element according to claim 11 or 12, characterized in that the insert part has an outlet valve. [14] 14. Closure element according to one of claims 1 to 12, characterized in that the inflow opening of the outlet channel is arranged eccentrically, in particular diametrically to the eccentric mouth of the inlet channel. [15] 15. Closure element according to one of claims 1 to 13, characterized in that two retaining clips are pivotally mounted on the cap. [16] 16. A device for preserving liquids in the home with the aid of a protective gas comprising at least one connectable to a gas reservoir or this exhibiting handset, which has its own, the inert gas optionally releasing or restrained valve to the delivery of the protective gas from a discharge end of the handset to release or retain, and optionally a nozzle, which controls the gas flow and further comprising a container closure according to one of claims 1 to 14. [17] 17. The apparatus according to claim 15, characterized in that the valve of the hand-held device has an actuating member which is designed as a displaceable against the force of a spring valve member or cooperates therewith. [18] 18. The apparatus of claim 16 or 17, characterized in that the container closure in the region of the inlet opening comprises a protruding mandrel which shifts the actuator of the handset valve when attaching the discharge-side end of the handset to the inlet opening and opens the valve. [19] 19. Device according to one of claims 16 to 18, f characterized in that the inlet and outlet valve of the closure system and the handset valve automatically close when removing the handset. Vienna, June 11, 2015 Applicant by: Haffnei ^ ind Keschmann
类似技术:
公开号 | 公开日 | 专利标题 DE60209540T2|2006-12-28|NOZZLE EP1204555B1|2004-07-14|Method for the preservation of an opened drink bottle EP0953542B1|2003-12-17|Filling valve for a filling machine EP2279786B1|2012-10-31|Device and method for gassing a liquid EP2969893A1|2016-01-20|Method for purging containers EP3660381A1|2020-06-03|Fitting for liquefied gas bottles and filling method EP3307645B1|2019-07-24|Device for preserving beverages EP1756453B1|2011-05-18|Cap for a receptacle DE4231635C2|1994-07-28|Containers for the storage and transport of flowable media, primarily liquids EP3094414A1|2016-11-23|Dispensing device EP1331428A1|2003-07-30|Sealing for a carbonator DE4231114A1|1994-03-24|Device for filling bottles or similar containers DE10200748A1|2003-07-24|Lockable dispensing device for dispensing a liquid, viscous or pasty medium contained in a container EP3501630B1|2021-01-27|Device for applying fluids, preferably cooled fluids DE19805198A1|1999-08-19|Carbonated drinks bottle EP3323775B1|2019-06-05|Valve insert and container AT506870B1|2010-05-15|DEVICE FOR PRESERVING FOODS WITH THE HELP OF AN INERTGAS DE823374C|1951-12-03|Self-closing valve, especially for pressure vessels and gas bottles DE1186769B|1965-02-04|Device for pouring out pressurized liquids such as beer DE1802499A1|1970-05-14|Tap fitting for beer kegs and the like. DE1920210A1|1970-02-12|Liquid atomizer with propellant ejector DE102011004393A1|2012-08-23|Closure unit for beverage container e.g. keg, has pressure relief opening that is provided to connect interior of beverage container with environment in pressure relief position of two closure elements DE19952379B4|2009-06-04|Co2 Dispenser DE1815006C3|1976-03-18|Bunghole closure for barrels, cans or the like DE2920747A1|1980-11-27|METHOD AND DEVICE FOR INSERTING A TRANSPORT CONTAINER IN THE RECEPTION OF A DOSING DEVICE
同族专利:
公开号 | 公开日 DK3307645T3|2019-10-14| EP3307645A1|2018-04-18| US20180257841A1|2018-09-13| WO2016198941A1|2016-12-15| AT517242B1|2019-05-15| US10625919B2|2020-04-21| EP3307645B1|2019-07-24| ES2748820T3|2020-03-18| PT3307645T|2019-10-25|
引用文献:
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申请号 | 申请日 | 专利标题 ATA367/2015A|AT517242B1|2015-06-11|2015-06-11|Device for preserving beverages|ATA367/2015A| AT517242B1|2015-06-11|2015-06-11|Device for preserving beverages| US15/735,500| US10625919B2|2015-06-11|2016-06-10|Device for preserving beverages| DK16738861.0T| DK3307645T3|2015-06-11|2016-06-10|BEVERAGE CONSERVATION DEVICE| EP16738861.0A| EP3307645B1|2015-06-11|2016-06-10|Device for preserving beverages| PCT/IB2016/000787| WO2016198941A1|2015-06-11|2016-06-10|Device for preserving beverages| PT167388610T| PT3307645T|2015-06-11|2016-06-10|Device for preserving beverages| ES16738861T| ES2748820T3|2015-06-11|2016-06-10|Device for keeping drinks| 相关专利
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