Bars, restaurants, and other businesses that sell food and drinks often place cold beverages in pitchers that are sold to customers. Unfortunately, the beverages in the pitchers rapidly warm before the beverages are consumed. Ice can be placed inside the beverage (such as soda or beer), but as the ice melts it dilutes the beverage and negatively affects the taste.
Businesses that sell cold beverages in pitchers and other containers endeavor to keep the beverages from warming before the beverages are consumed.
One example embodiment is a bucket assembly that includes a bucket with a slot and an insert with a space between oppositely disposed ends. The space aligns with the slot of the bucket and receives a handle of a beverage container that holds a liquid when the beverage container is in the bucket. The insert removably engages with the bucket and includes a cooling agent to maintain the liquid in the beverage container cold.
Other example embodiments and variations of these embodiments are shown and taught in the accompanying drawings and detailed description.
Example embodiments include a bucket assembly that holds beverages and provides a housing that maintains the beverages cold.
One example embodiment includes two interlocking buckets (an inner bucket and an outer bucket) and an insert that inserts into and engages with one of the buckets. A beverage container can be placed into the inner bucket to contact the insert. The insert is filled with a cooling agent (such as ice, cold water, and/or another substance) to maintain beverages in the beverage container cold.
The insert keeps water and ice sealed inside of the bucket assembly and prevents contaminants from contaminating the water and ice sealed therein. Furthermore, the two interlocking buckets include an air-gap, air-lock space, or insulation between them. This space reduces or eliminates condensation from forming on an exterior surface of the outer bucket and also insulates the ice or cooling agent that is located inside of the inner bucket. As such, the bucket assembly reduces and slows the melting process of the ice located inside of the inner bucket and assists in maintaining beverages in the beverage container cold.
When a beverage container is positioned inside the bucket assembly, the beverage container remains in contact with the ice and/or water located in the insert and thus remains cold. Furthermore, components of the bucket assembly (such as the two buckets and the insert) are separable and removable from each other. As such, these components can be readily cleaned, repaired, and replaced if one of them becomes damaged.
The bucket assembly saves bars, restaurants, and other businesses that sell food and drinks money since ice or other cooling agents used to cool beverages lasts longer, remains confined inside the bucket (e.g., does not spill from the bucket), and remains free from contaminates. As such, ice provided in the insert and the insert itself can be safely reused. Furthermore, beverages in the beverage container remain cold longer and are not subject to warming rapidly after being sold to customers.
The outer bucket 110 has a cylindrical shape or truncated cone shape with an open top 150 and a flat bottom 152. A body 154 of the outer bucket includes an outer surface and an inner surface that define a volume or space 156 into which the inner bucket 120 is positioned. The outer bucket 110 includes an elongated opening, channel, or slot 158 that extends from the top 150 to or toward the flat bottom 152.
The inner bucket 120 has a cylindrical shape or truncated cone shape with an open top 170 and a flat bottom 172. A top of the inner bucket includes a rim 174 with one or more locking mechanisms 176 that engage the top surface of the outer bucket 110. A body 178 of the inner bucket includes an outer surface and an inner surface that define a volume or space 180 that receives a foldable insert (shown in
The outer bucket 110 and the inner bucket 120 have similar shapes with the inner bucket 120 having a smaller size than the outer bucket 110. As such, the body 178 of the inner bucket 120 can fit into or inside of the volume or space 156 of the outer bucket 110. When the inner bucket 120 fits inside the outer bucket 110, the slot 182 of the inner bucket aligns with the slot 158 of the outer bucket.
When the inner bucket 120 fits within the volume or space 156 of the outer bucket 110, the locking mechanism 176 of the inner bucket 120 engages the rim or top portion of the outer bucket 110 such that the inner bucket 120 locks to or connects with the outer bucket 110. By way of example, this locking mechanism includes, but is not limited to snap-fit connections, twist-lock connections, threaded connections, tongue and groove connections, and other type of mechanical connections.
As shown in
The insert 400 is sealed or closed on three of its sides (shown as side 440A, 440B, and 440C). A fourth side 440D opens to enable ice and/or liquids to be placed inside of the insert. This fourth side 440D includes one or more seals or closures 450. When the seal 450 is closed, then ice and/or liquid trapped in the insert cannot escape or leak (e.g., cannot escape from the chambers or cavities 420A, 420B, and 420C). By way of example, this seal 450 can include one or more a zip-lock mechanisms.
The fourth side 440D includes one or more connectors (shown as holes 460A and 460B) that extend through the body of the 410 of the insert above the seal 450. These connectors engage with the connection mechanisms 300A and 300B on the inner bucket 120 so the insert 400 hangs from, engages with, and/or is supported by the inner bucket. By way of example, the connectors are holes 460A and 460B that receive protrusions from the connection mechanisms 300A and 300B, respectively. When the connectors of the insert connect or engage with the connectors of the inner bucket, the insert hangs from and/or is supported by the inner bucket.
The connectors of the insert are not limited to being holes. By way of example, these connectors can be male protrusions that engage female receptacles on the inner bucket. Alternatively, the connectors of the insert can be Velcro, buttons, or fasteners that removably snap or engage to the connectors on the inner bucket.
Looking to
The insert 400 can be formed of plastic or polymer and can have a strong rigid body that does not bend or flex. For example, the insert is formed of curved or rounded sections that emulate a shape of the inner bucket. Alternatively, the insert can have a flexible, foldable body that bends. For example, a flexible body can change shapes and wrap around or conform to a shape of a beverage container inserted into the inner bucket. For instance, the insert is formed from a flexible polymer or plastic bag with one or more zip locks along one open end 440D.
Furthermore, the insert is watertight and/or waterproof such that water or another liquid (such as a liquid used to cool beverages) cannot escape through or pass into or out of the insert. For example, when the insert is filled with cold water and ice, this water cannot seep through or escape through the body of the insert. Furthermore, the insert can have different shapes, such as a polygonal shape, a circular shape, a rectangular shape, etc.
The insert 400 has a cylindrical shape or configuration with open ends. A space or gap 550 extends along the height of the insert 400, and this space or gap 550 aligns with the slots 158 and 182. The inner bucket 120 and the insert 400 fit inside the outer bucket 110 such that the slot of the 182 of the inner bucket 120 and the space or gap 550 of the insert 400 align with the slot 158 of the outer bucket 110. These openings receive the handle 510 of the beverage container 500 that removable fits inside of the inner and outer buckets. The insert is filled with water, ice, and or liquids to keep beverages 560 inside the beverage container cold. When the beverage container 500 is located inside the buckets, the insert 500 surrounds the exterior surface of the beverage container.
The space or gap 550 forms between two oppositely disposed ends of the insert 400. This space or gap has an elongated rectangular configuration and emulates a size and/or shape of the slots of the inner and outer buckets.
In an example embodiment, the insert folds or bends to emulate a shape of the inner bucket. The insert is positioned along an interior wall or surface of the inner bucket such that the insert wraps around an exterior surface of the beverage container in order to keep liquid in the beverage container cold.
The inner bucket engages with the outer bucket such that these two buckets are removable from each other. Alternatively, these two buckets can be integrally formed. For example, the two buckets are not separable but formed as a single unitary bucket.
The insert is not limited to a particular configuration. For example, the insert can include a closed bottom end that seats against or engages with the bottom of the inner bucket. In this example embodiment, a bottom of the beverage container seats against or engages with cold liquid and/or ice in the insert when the beverage insert is inserted into the inner bucket. Furthermore, the insert can be made with multiple sections that connect together (e.g., sections that fold and connect together along a heat seal).
Additionally, the insert is not limited to having an open side. For example, the insert can be a closed plastic or polymer container that is filled with a cooling liquid or agent. For instance, the insert is a re-usable cold pack that is re-freezable or ice pack that contains a liquid or gel that is placed in a refrigerator or freezer.
The slots on the inner and the outer bucket can have various shapes and sizes and depend, for example, on a shape and/or size of a handle of the beverage container. For instance, the slots have an elongated straight or tapering rectangular configuration with a square or rounded end. Further yet, the slots commence at the open ends of the buckets and extend downwardly toward or to the bottom. Additionally, the buckets can be made without the slots or with multiple slots (e.g., to accommodate a pitcher with two handles).
The lid can be provided with a seal (such as a rubber or polymer seal) to engage a top of one or more of the buckets in order to maintain liquids in the beverage container cold. The lid fits over openings to the inner and outer buckets to slow warming of the cooling agent located inside of the insert. Additionally, the bucket assembly can be made without a lid.
The bucket assembly can be made from one or more of plastics, polymers, metals, steel, composite materials, and wood. Furthermore, example embodiments show a lid connected to the inner bucket. Alternatively, the lid can connect to the outer bucket, or the bucket assembly can be provided without a lid.
One skilled in the art will appreciate, upon reading this disclosure, numerous modifications and variations to example embodiments. The appended claims cover such modifications and variations.
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Number | Date | Country | |
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20150267961 A1 | Sep 2015 | US |