A beverage container provided with a thermal regulation member having a sidewall extending through a beverage cavity of a container main body. The thermal regulation member contains an energy storage material that receives, stores, and transmits heat energy to and from a beverage in the beverage cavity to regulate its temperature. The energy storage material may initially absorb energy from a heated beverage having a temperature too hot for drinking, then transfers heat energy back into the beverage as it cools, keeping it within a comfortable temperature range for an extended period of time. The thermal regulation member may be selectively attachable to a stopper assembly that seals an upper opening of the beverage cavity. Alternatively, laterally extending attachment members may attach the thermal regulation member directly to a wall of the beverage cavity.

The disclosure herein relates to a portable capsule percolator with a drinking cup. In particular, the disclosure relates to a portable and easy to use capsule percolator, operable, using capsules readily available on the market, for making a desired percolated beverage such as coffee, tea, vegetarian drinks and the like, on the go, at the office, while travelling and more specifically, whenever or wherever such a drink is desired. The portable capsule percolator is operable by a pressure differential mechanism without the need of a power source. The portable capsule percolator includes an air-extracting mechanism operable to extract air from a first internal space and a sealing mechanism associated with the flask lid section configured to let outside air into a second internal space generating the pressure differential, activating the percolating process by pushing the liquid through a beverage capsule into a percolating section.

An insulating container can be configured to retain a volume of liquid, and include a first inner wall having a first end having an opening extending into an internal reservoir, and a second outer wall forming an outer shell. The second outer wall can include a second end configured to support the container on a surface. The second outer wall can include a dimple, and the dimple can include a circular base and an inner portion converging to an hole extending into the second outer wall. The hole can be sealed by a resin, and the circular base can be covered by disc formed of the material. Alternatively, a cap can cover the dimple, and a weld can connect the cap to the second outer wall. The container can also include a sealed vacuum cavity forming an insulated double-wall structure between the first inner wall and the second outer wall.

A container having improved insulation properties with an inner structure received into an outer structure defining an inner cavity and having a flat configuration and an erected configuration; a bottom insulating cavity defined by a bottom panel, a bottom rear wall, and bottom lateral walls when the inner structure is in an erected configuration; a first side insulating cavity defined by a first side panel, a first side panel lateral wall and a first side panel top wall when the inner structure is in the erected configuration; a second insulating cavity defined by a second side panel and a second side top wall when the inner structure is in an erected configuration and cooperatively associated with an outer structure; and, a top insulating cavity defined by a top panel and a top ridge when the inner structure is in an erected configuration and operatively associated with the outer structure.

The invention provides a container system comprising a lid and a container. The container includes a neck, and the lid includes a neck-surrounding space defined by two walls of the lid. At least the neck-surrounding space is vacuum insulated, or it is filled with foam, air, or any combination thereof. The lid exhibits numerous technical merits such as improved neck insulation, better efficiency in overall heat insulation, simplicity in usage, and easy manufacturability, among others.

The disclosure discloses a multi-functional beverage container that includes a multi-walled evacuated vessel body; an integrated juicing element to releasably nest within the multi-walled evacuated vessel body; a multi-walled vessel top that realeasably seals to the multi-walled vessel body and to receive the juicing element; and a multi-walled cap that realeasably seals to the multi-walled vessel top. The container may further comprise a planar straining element for straining purposes, various sealing gaskets, integrated volumetric measuring indicators, a fluid within the dual walls comprising a freezing point below at least zero degrees Celsius to maintain a chilled nature of a stored liquid within the container. The container may comprise thermo-chromatic paint to indicate a representative temperature has been achieved, external portions to comprise textured elements to facilitate grasping and twisting, and an internal sensor to wirelessly communicate a measured weight to a secondary wireless device.

An insulating container can be configured to retain a volume of liquid, and include a first inner wall having a first end having an opening extending into an internal reservoir, and a second outer wall forming an outer shell. The opening can be sealed by a closure, the closure having an upper portion with a handle that has a circular curvature equal to the cylindrical portion of the closure. The closure may also have a lower portion that is joined to the upper portion by an injection molded polymer element.

A thermally insulated container comprising: a frusto-conical support base internally comprising a heat source with connection to an external electrical source, a flat support base, an elongated main body of circular section with thermally insulated walls with connectors arranged at the base of said body to electrically link a shielded electrical resistance; a plug with a shutter that acts as a closure of the main body mounted in the mouth of said body by means of a thread and comprising a safety pressure element. The thermally insulated container is particularly adequate for heating water to two temperature settings to be used to prepare mate beverage or to prepare other infusions. In a first embodiment the container holds 500cc of water and in another embodiment it holds one liter of water.

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A temperature control cup includes a cup body and a cup cover, and the cup cover is covered on the cup body. The cup body is provided with a cup outer shell, a cup middle shell, and a cup inner wall in order from the outside to the inside. A vacuum heat insulation layer is provided between the cup shell and the cup middle shell. A gas getter is provided in the vacuum heat insulation layer at the bottom of the cup body. A phase change material layer is provided between the middle shell and the inner wall of the cup body. The bottom center of the cup shell is recessed inward with a small through-hole, and the through-hole is sealed with glass after melting at high temperatures.

A beverage dispensing machine (e.g., coffee maker) has a cooling unit. The cooling unit includes a thermal mass. The cooling unit is operable to freeze at least a portion of the thermal mass to provide a cold storage reservoir. The cooling unit also includes a passageway within which a brewed beverage flows, the passageway being in thermal communication with the thermal mass that cools the brewed beverage as it flows within the passageway to chill the brewed beverage before it is dispensed.