Patent Application
20080099493
The present invention relates generally to beverage containers and, more particularly, to dual walled beverage containers.
In general, some consumer products are desired to be cold or hot when used by an end user. Specifically, such products are refrigerated if it is desired to be consumed cold or heated before consumption if it is desired to be consumed hot. For example, consumer products such as carbonated soft drinks, iced tea, iced coffee, or other such beverages are stored in refrigerators before consumption by the end user. Restaurants, convenient stores, and other types of retail outlets have long offered refrigerated packaged beverages. In the home, consumers routinely refrigerate packaged beverages for consumption of the beverage cold. However, in situations where refrigeration is not available, for instance when a consumer is traveling with a packaged product, the product either cannot be consumed cold or the consumer must store the product in an ice filled cooler or a similar type of device.
In the alternate situation when the consumer desires to consume a product hot, there is typically no method of conveniently heating the product away from a home. Examples of consumer products that may desirably be consumed hot include hot coffee, hot tea, soup, or other such consumer products. In restaurants and convenient stores, there is usually a stove, brew pot, or microwave oven that can be used to heat such products. However, when a consumer is traveling, there are usually no such devices to heat a packaged product until a consumer stops at a convenience store, his home, or a hotel having such similar devices. Additionally, it may be desirable to maintain the product at its desired hot or cold temperature for as long as possible before or during consumption of the product.
Accordingly, there is a desire for a method of providing packaged consumer products that can be desirably cooled or heated at any time and at any place. In addition, there is a desire to maintain the hot or cold temperature of a packaged product for as long as possible.
The present application thus describes a container. The container may be a beverage can or a bottle. The beverage can has an outer body including a top, a shoulder, a sidewall, and a bottom. The beverage can also includes a liner inside the outer body. The liner has a top edge that is joined to the shoulder of the outer body. In particular, a seam is formed between the top edge of the liner and the shoulder of the outer body. Thus, a space is defined between the liner and the shoulder, the sidewall, and the bottom of the outer body.
The present application also describes a bottle. The bottle has an inner body including a mouth, a neck, a straight sidewall, and a bottom. The bottle also includes a sleeve outside the inner body. The sleeve has a top edge, a shoulder, a sleeve sidewall, and a sleeve bottom. The sleeve is joined to the straight sidewall of the inner body at its top edge so as to form a seam between the straight sidewall and the top edge. Consequently, a space is defined between the inner body and the sleeve.
The present invention now will be described more fully hereinafter with reference to the accompanying drawings, in which exemplary embodiments of the invention are shown. This invention may, however, be embodied in many different forms and should not be construed as limited to the embodiments set forth herein; rather, these embodiments are provided so that this disclosure will be thorough and will fully convey the scope of the invention to those skilled in the art. Like numbers refer to like elements throughout.
As illustrated here, the outer body 110 is a typical beverage can as used for packaging beverages such as carbonated soft drinks, tea, and the like, as known in the art. However, it should be understood that the outer body 110 may be any beverage container known in the art for use in packaging and storing a beverage. The outer body 110 may be made out of a plastic or a metal. For example, the outer body 110 may be made out of made out of a conventional thermoplastic, such as PET (polyethylene terephthalete), PLA (polylactide acid), PP (polypropylene), combinations thereof, or similar types of materials. The outer body 110 may be manufactured by injection molding or blow molding (which may include injection stretch blow molding (one or two steps or otherwise) and extrusion blow molding), or similar types of forming techniques. Preferably, the outer body 110 may be made out of a metal. For example, the outer body 110 may be made out of conventional metals used for beverage cans, including aluminum, manganese, magnesium, steel, combinations thereof, or similar types of materials. The outer body 110 may be formed by any conventional forming technique, including punching, ironing, and other such processes as known in the art. Other types of materials may be used herein.
The top 120 may have a pull tab for opening the beverage can 100. For example, the pull tab may be any conventional pop top or stay tab. The shoulder 130 may be concave or tapered, or any other suitable shape. The sidewall 140 may be a cylinder having a straight wall, or any other suitable shape. The bottom 150 may be concave, tapered, flat, or any other suitable shape.
The liner 160 may also be made out of a plastic or a metal. Preferably, the liner 160 may be made out of made out of a conventional thermoplastic, such as PET (polyethylene terephthalete), PLA (polylactide acid), PP (polypropylene), combinations thereof, or similar types of materials. The liner 160 may be manufactured by injection molding or blow molding (which may include-injection stretch blow molding (one or two steps or otherwise) and extrusion blow molding), or similar types of forming techniques. The liner 160 may be made out of a metal. For example, the liner 160 may be made out of conventional metals used for beverage cans, including aluminum, manganese, magnesium, steel, combinations thereof, or similar types of materials. The liner 160 may be formed by any conventional forming technique, including punching, ironing, and other such processes as known in the art. Other types of materials may be used herein. Preferably, the liner 160 is made of a food grade material, as a beverage is to be packaged in the beverage container 100 within the liner. The liner sidewall 180 may be a cylinder having a straight wall, or any other suitable shape. The liner bottom 190 may be concave, tapered, flat, or any other suitable shape. Generally, the liner 160 may be any shape or size such that the liner may be inserted into the outer body 110. For example, the liner sidewall 180 and liner sidewall 190 may be of any shape or size equal to or less than the diameter of the top 120 of the outer body 110 so as to be inserted into the outer body through the shoulder 130 of the outer body before the top is placed on the outer body.
The top edge 170 of the liner 160 may be joined to the shoulder 130 of the outer body 110, by any means for joining two components together to form a seam 200. For example, the top edge 170 and the shoulder 130 may be joined together by double seaming to form a double seam. In another embodiment, the top edge 170 and the shoulder 130 may be joined together by heat-fusing to form a heat-fused seam. Other types of methods may be used for forming the seam 200 herein. In particular embodiments where the top edge 170 of the liner 160 has the same or a similar diameter or dimensions to those of the shoulder 130 of the outer body 110, a hole (not shown), may be provided in the bottom 150 of the outer body when it is desired to prevent a vacuum from forming when the top edge 170 is joined to the shoulder 130. The hole allows air to flow into and out of the space 210 between the outer body 110 and the liner 160. In particular embodiments, the hole may contain an actuation means for a cooling device or a heating device contained within the space 210. In other embodiments, the hole may be closed by any means known in the art, such as by a plug, heat-fusing, combinations thereof, or similar means.
The space 210 formed between the outer body 110 and the liner 160 is sealed from both the environment outside the outer body and the contents inside the liner. By forming the space 210 between the outer body 110 and the liner 160, a material 220 that insulates the beverage contained in the liner can be contained in the space. For example, the space 210 may be filled with air, insulating material, a cooling material, a heating material, or be evacuated to form a vacuum or a partial vacuum. In some embodiments, the space 210 may instead be used to hold a cooling device or a heating device and thus, a consumer may cool or heat the beverage at any desired time or place. In particular embodiments, the space 210 may be about 0.21 inches to about 0.26 inches (about 53 to about 65 millimeters) in diameter.
The inner body 310 may be made out of a plastic or a metal. For example, the inner body 310 may be made out of made out of a conventional thermoplastic, such as PET (polyethylene terephthalete), PLA (polylactide acid), PP (polypropylene), combinations thereof, or similar types of materials. The inner body 310 may be manufactured by injection molding or blow molding (which may include injection stretch blow molding (one or two steps or otherwise) and extrusion blow molding), or similar types of forming techniques. The inner body 310 may also be made out of a metal. For example, the inner body 310 may be made out of conventional metals used for beverage cans, including aluminum, manganese, magnesium, steel, combinations thereof, or similar types of materials. The inner body 310 may be formed by any conventional forming technique, including punching, ironing, and other such processes as known in the art. Preferably, the inner body 310 is made of a food grade material, as a beverage is to be packaged and stored in the bottle 300 within the inner body 310. Other types of materials may be used herein.
The mouth 320 may be of conventional design and may be sized to mate with a conventional closure. The mouth may include threads to accommodate a threaded closure or may be threadless so as to accommodate a snap-on closure. Other types of closure mechanisms may be included on the mouth 320. The neck 330 may be tapered or any other suitable shape. The straight sidewall 340 may be a cylinder having straight wall. The bottom 350 may be concave, tapered, flat, or any other suitable shape.
The sleeve 360 may also be made out of a plastic or a metal. For example, the sleeve 360 may be made out of made out of a conventional thermoplastic, such as PET (polyethylene terephthalete), PLA (polylactide acid), PP (polypropylene), combinations thereof, or similar types of materials. The sleeve 360 may be manufactured by injection molding or blow molding (which may include injection stretch blow molding (one or two steps or otherwise) and extrusion blow molding), or similar types of forming techniques. Preferably, the sleeve 360 may be made out of a metal. For example, the sleeve 360 may be made out of conventional metals used for beverage cans, including aluminum, manganese, magnesium, steel, combinations thereof, or similar types of materials. The sleeve 360 may be formed by any conventional forming technique, including punching, ironing, and other such processes as known in the art. Other types of materials may be used herein.
The top edge 370 of the sleeve 360 may be joined to the straight sidewall 340 of the inner body 310 by any means for joining two components together to form a seam 410. For example, the top edge 370 and the straight sidewall 340 may be joined together by an adhesive to form an adhesive seam. In another embodiment, the top edge 370 and the straight sidewall 340 may be joined together by welding to form a welded seam. Other types of methods for forming the seam 410 may be used herein.
The space 420 formed between the inner body 310 and the sleeve 360 is sealed from both the environment inside the inner body and the environment outside the sleeve. By forming the space 420 between the inner body 310 and the sleeve 360, a material 420 that insulates the beverage contained in the inner body can be contained in the space. For example, the space 420 may be filled with air, insulating material, a cooling material, a heating material, or be evacuated to form a vacuum or a partial vacuum. In some embodiments, the space 420 may instead be used to hold a cooling device or a heating device and thus, a consumer may cool or heat the beverage at any desired time or place. In particular embodiments, the space 420 may be about 0.21 inches to about 0.26 inches (about 53 to about 65 millimeters) in diameter.
It should be apparent that the foregoing relates only to exemplary embodiments of the present invention and that numerous changes and modifications may be made herein by one of ordinary skill in the art without departing from the spirit and scope of the invention as defined herein.
This application claims priority under 35 U.S.C. §119(e) to U.S. Provisional Patent Application No. 60/863,201, filed on Oct. 27, 2006, the disclosure of which is expressly incorporated herein by reference.
| Number | Date | Country | |
|---|---|---|---|
| 60863201 | Oct 2006 | US |
