The present invention generally relates to beverage containers, and in particular those beverage containers which are configured and designed to be utilized during and in conjunction with various aquatic activities.
Aquatic activities, for recreation or relaxation, may be enjoyed in a body of water such as a swimming pool, jacuzzi, lake, beach, or the like. As many of these activities are enjoyed during the summer, beverages are commonly enjoyed by the participants during those times.
Beverages are commonly available in open containers nearby to these activities. However most much suspend their aquatic activities or leave the water temporarily to enjoy a cooling beverage. Generally beverage containers are not buoyant and its contents likely spill into the water.
A floating beverage container made of approved, plastic drinking materials would be most convenient which would float upright and not tip over and spill its contents during the course of such activities.
Conventional beverage containers made of metal or glass are generally not well suited for use in connection with water sports activities as they are not buoyant, and may cause personal injury if not handled properly. Plastic beverage containers generally are not configured to provide upright flotation when placed in water
A search for floating, buoyant beverage containers which are configured to float upright in a body of water are presently unavailable.
The principal object of the present invention is to provide a floating beverage container which is configured to float upright in a body of water such as a swimming pool, jacuzzi, lake, beach, or the like.
The general object of the present invention is to improve the upright stability of a beverage container for use in water.
The beverage container herein is configured and designed to float upright in water such a swimming pool, jacuzzi, lake, beach, or the like includes a double-walled plastic beverage container which is sufficiently buoyant and balanced to perform as intended. The hollow annular space created between the inner and outer container side walls provide the buoyant forces necessary for floatation while sufficient ballasted weight is positioned at the bottom of the container to float upright when in use.
The volumetric dimensions of the annulus and the ballasted weights are calculated to provide the necessary flotation balance. Prototypes have been successfully tested with positive results. The ballasted weight is determined to maintain the buoyant beverage container upright in a body of water, without sinking when filled with beverage, and without spilling when near empty or capsizing when empty.
Advantages of the presented invention will be better understood upon reading the detailed description which follows with reference to the attached drawings, wherein:
In the description which follows, like parts are indicated throughout the specification and drawings with the same reference numerals, respectively. The drawings are not necessarily to scale and the proportions of certain parts have been exaggerated to better illustrate details of the invention.
Referring to
The principal components of the beverage container assembly are an outer sleeve 21, an inner containment 22, and the dense ballast material 31. The sleeve 21 and 22 are constructed of an approved drinking material plastic, such as acrylic plastic, and the ballast of metal.
The outer sleeve and inter containment are affixed together at their tops that mate at location 23. Securing these two components together can be performed by common manufacturing practices such as solvent, heat, or other practices.
The balance ballast 31 shall be encapsulated or otherwise affixed to the lowest point practical in the base of the outer shell 21.
As most plastics suitable for this application have a specific gravity near that of water, the buoyant forces generated by the void air gap between the outer sleeve 21 and the inner containment 22 will need to be in excess of the balance ballast weight 31 necessary to keep the vessel floating upright as intended.
There exists a volume in the annular cavity 41 which encircles inner containment 22 inside the outer sleeve 21. The vertical profile of annular cavity 41 may vary to obtain the necessary buoyancy based on Archimedes Principle whereas the buoyant force is equal to the weight of the volume displaced.
The profile and volume created by the annular cavity generates the buoyancy needed to exceed the balance ballast and container weight can be readily calculated using common geometric equations and inputting the ID of the outer shell, OD of the inner containment, and the vertical distance of the cavity. Cylindrical or conical equations shall be used that would apply to the shape of the vessel based on the profile of the void.
Container 51 is comprised of a plastic material safe for drinking and configured with protruding upper and lower collars of the same material as shown on the illustration. An outer sleeve of buoyant foam material 52 is fitted snugly around the hard plastic container, inserted from the bottom. Balance ballast weight 31 is incorporated into the base of the container as low as practical by encapsulation or other means being affixed.
The thickness and shape of external foam sleeve 52 can be readily calculated utilizing common geometric equations and inputting the ID of the outer surface, OD of the inner container wall, and the vertical distance between the top and bottom collars. Cylindrical or conical equations shall be used which would apply to the particular shape of the vessel.
The afore described floating beverage containers can be produced utilizing commercially available materials commonly used for drink containers. Calculations of the volumes required for buoyancy and balance ballast weights required result in dimensions practical for beverage containers. As stated earlier, containers intended for this purpose were not found to be available.
Although this invention has been described in part by making detailed references to certain specific embodiments, such detail is intended to be, and will be understood to be, instructional rather than restrictive. Variations may be made in the structure and method of manufacture and assembly without departing from the spirit and scope of the invention as described herein.