Coolers for dispensing liquids are known. A typical cooler comprises a container having an insulated outer wall. A removable cover may be provided for allowing the container to be filled and/or emptied. A spigot is provided near the bottom of the container for dispensing the liquid form the cooler by activation of a push button control lever or the like.
An improved cooler is disclosed.
Embodiments of the present invention are directed to cooler. The cooler has a thermally insulated container defining a reservoir for retaining a flowable substance and comprising a base and a perimeter sidewall extending from the base. The perimeter sidewall comprises a first portion and a second portion that are defined by a plane intersecting the perimeter sidewall. The cooler further comprises at least a first spigot and a second spigot. The first spigot is rigidly attached to the perimeter sidewall at a first location in the first portion and the second spigot is rigidly attached to the perimeter sidewall at a second location, where the first location is spaced apart from the second location.
In addition, embodiments of the present invention are directed to a thermally insulated container that defines a reservoir for retaining a flowable substance. The container comprises a base and a perimeter sidewall upwardly extending around the base and defines a center of gravity. The perimeter sidewall comprises a first portion and a second portion that are defined by a vertical plane intersecting the perimeter sidewall and the center of gravity. The container further comprises at least a first spigot and a second spigot. The first spigot is rigidly attached to the perimeter sidewall at a first location in the first portion and the second spigot is rigidly attached to the perimeter sidewall at a second location in the first portion. The first location is spaced apart from the second location and the at least first and second spigots are attached only in the first portion.
In addition, embodiments of the present invention are directed to a method for dispensing liquid from a cooler. The method comprises providing a cooler that comprises a thermally insulated container that defines a reservoir for retaining a flowable substance and comprises a base and a perimeter sidewall upwardly extending from the base. The cooler further comprises at least a first spigot and a second spigot. The first spigot is rigidly attached to the perimeter sidewall at a first location and the second spigot is rigidly attached to the perimeter sidewall at a second location, where the first location is spaced apart from said second location. The method further comprises placing the cooler on a horizontal surface, placing a first object directly underneath the first spigot, and actuating the first spigot.
In addition, embodiments of the present invention are directed to an apparatus that comprises a thermally insulated container that defines a reservoir for retaining a flowable substance and comprises a base and a perimeter sidewall upwardly extending from the base. The apparatus further comprises at least a first spigot and a second spigot. The first spigot is rigidly attached to the perimeter sidewall at a first location and the second spigot is rigidly attached to the perimeter sidewall at a second location, where the first location is spaced apart from said second location.
In addition, embodiments of the present invention are directed to a liquid dispensing device that comprises a container having a vertical sidewall. The liquid dispensing device further comprises a first conduit in fluid communication with the sidewall at a first location and a first valve in fluid flow communication with the first conduit. The liquid dispensing device further comprises a second conduit in fluid communication with the sidewall at a second location and a second valve in fluid flow communication with the second conduit.
Referring generally to
Container 2 may be any container having an interior reservoir 11 therein which is sufficiently voluminous so as to hold liquids in bulk. Container 2 has a base 6 and an upstanding sidewall 7 extending vertically around the perimeter of base 6 so as to define an interior reservoir 11. Sidewall 7 may be a single member composed of a plastic, metal or a polymer material or sidewall 7 may comprise two or more layers 7a and 7b, including an insulating layer 12, as shown in
Container 2 is commonly used to hold and dispense any substantially viscous substance. Container 2 may be any container where using a spigot 3a-3d to dispense fluids is desired, including coolers, cartons, bottles, tubs, boxes, or the like. Furthermore, container 2 may be of any shape, (e.g. cylindrical, round, square, rectuangler and the like) or size (e.g. a ten gallon cooler, a five gallon cooler and the like).
Cooler 1 may also include two or more spigots. Spigots 3a-3d are manually activated valves capable of dispensing a fluid in a controlled fashion. Such spigots 3a-3d dispense the liquid by allowing gravity to drain the liquid from the container 2 when the spigot 3a-3d is opened. Referring to
Each spigot 3a-3d is rigidly attached to sidewall 7 via an aperture 27 in the sidewall 7. Each aperture 27 allows each spigot 3a-3d to be in fluid flow communication with the interior reservoir 11.
Each spigot 3a-3d may be mechanically fastened to sidewall 7 to form a watertight seal. A gasket or grommet 22 composed of deformable or compressible material may be placed over the conduit 10. A nut 18 composed of a generally rigid and non-compressible material, one example being polypropylene, is threaded onto complimentary threads 16 along the conduit 10 and tightened to compress the gasket 22 between nut 18 and sidewall 7 and retain the spigot in the sidewall 7.
The maximum number of spigots 3a-3d for container 2 is generally related to the circumference of container 2. Spacing between the spigots 3a-3d should be sufficient so as to allow a user to manually operate each spigot 3a-3d and dispense fluid without interfering with the use of adjacent spigots 3a-3d. In one preferred embodiment, spigots 3a-3d are disposed about the the base 6 of container 2 with at least four inches between spigots 3a-3d. Spigots 3a-3d may be positioned on the container 2 so as to be disposed a distance from base 6. As illustrated with reference to spigot 3b in
Various configurations of the locations of spigots 3a-3d about the perimeter sidewall 7 are possible. In one exemplary embodiment as shown in
Spigots 3a-3d may be located within recesses 28a-28d so as to minimize their projection beyond the exterior surface of the wall 7 or flush mounted to the wall 7 so as to project therefrom.
Cooler 1 may also comprise a removable lid 4 for filling the container 2. Lid 4 is generally shaped so as to completely cover and close an open end of container 2. Lid 4 may be of any shape to fit the open end of container 2. Lid 4 is releasably attached at one end of container 2 such as by threads, compression fit, locking mechanisms or the like. For example, lid 4 may be threaded to match complimentary threads along sidewall 7 so as to be threaded onto container 2 or lid 4 may simply plug into the open end of container 2. Typically, lid 4 is also thermally insulated.
Cooler 1 may additionally comprise one or more handles 5 for carrying container 2. These handles 5 may be attached to or molded into the sidewall 7. Handles 5 should be sufficient to support the full weight of container 2 when container 2 is filled with a substance.
Cooler 1 is constructed so that it may freely rest on any surface 9 that has an edge 8. Surface 9 may be any elevated surface having a surface area such that a portion of cooler 1 may be allowed to hang off edge 8 of surface 9. This allows one or more spigots 3a-3d attached to the portion hanging off edge 8 so no obstruction is disposed directly underneath one or more of spigots 3a-3d. In this configuration, simultaneous, unobstructed access to one or more spigots 3a-3d is permitted. In one embodiment, cooler 1 may freely rest on edge 8 such that no external forces need be applied to cooler 1 to keep the cooler 1 stable on edge 8 and while allowing simultaneous, unobstructed access to a plurality of spigots 3a-3d. Additionally, the center of gravity 25 of cooler 1 (while cooler 1 may be filled with liquid) should be placed on surface 9 such that the center of gravity 25 may be supported by surface 9.
As shown in the illustrated embodiment of
Referring to
Specific embodiments of an invention are described herein. One of ordinary skill in the art will recognize that the invention has other applications in other environments. In fact, many embodiments and implementations are possible. The following claims are in no way intended to limit the scope of the invention to the specific embodiments described above.