An insulated container for food particulate and beverages is described. The insulated container includes a double-walled structure composed of a metal, and a glass structure arranged within a hollow interior of the double-walled structure. The glass structure includes a body and a sipping portion extending from the body. The sipping portion isolates the user's lips from contacting the double-walled structure. The glass structure may be repeatably removed for cleaning or replacement. The insulated structure includes a deformable flange that secures the glass structure to the double-walled structure. The insulated container may be vacuum-insulated.

Disclosed embodiments relate to a removable insert structure, which may be formed of glass and configured to be disposed within an outer vessel. The insert structure may have a sipping portion configured to extend out of the open end of the outer vessel. In some embodiments, the cross-sectional width of the sipping portion may vary, for example from the shoulder end to the sipping end. For example, the cross-sectional width of the sipping portion may be wedge-shaped, with the width at the sipping end being less than the width at the shoulder end. Insulated containers including removable insert vessels and lids for use with insulated containers are also disclosed.

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.

A hot food storage assembly includes a box that may be positioned on a support surface. A cover is removably positioned on the box and the cover has a plurality of openings. A plurality of cans is provided and each of the cans may contain a food item. Each of the cans is comprised of a thermally insulating material. Thus, each of the cans may retain the food item at a pre-determined temperature. Each of the cans is slidably inserted through an associated one of the openings. A plurality of lids is provided and each of the lids is removably coupled to an associated one of the cans. Each of the lids forms a fluid impermeable seal with the associated can. Thus, each of the lids inhibits heat transfer between the food item and air.

A container assembly has a soft-sided insulated wall structure. It has one or more internal chambers in which to place objects to be kept cool or warm. A first closure member governs access to the container assembly. The wall structure includes one or more accommodations in which to place a warming or cooling element, such as an ice pack. The accommodations in the outside walls are externally accessible without opening the main chamber, and have their own closure, and may be insulated. The inside is a thin web through which to transfer heat. An internal partition divides the container assembly into two chambers. The partition may have a thermal storage element. The container may be a collapsible foldable bag; a tote bag; back pack or a non-collapsible lunch box. The thermal storage elements may have a flat disk shape. The disks slide sideways into place in the respective accommodations.

The present invention discloses a locking device for replacing a liner in a thermos. The locking device locks and positions a liner stably by a high-pressure assembling force resulted from an elastic effect, after replacing and assembling the liner in a drinking container. A tightening ring with an elastic force is utilized primarily. The tightening ring is clamped between a mineral liner and a barrel by filling, forming a strong elastic reaction force to press and lock the elements, through a spinning action of a connecting ring.

An insulated container for food particulate and beverages is described. The insulated container includes a double-walled structure composed of a metal, and a glass structure arranged within a hollow interior of the double-walled structure. The glass structure includes a body and a sipping portion extending from the body. The sipping portion isolates the user's lips from contacting the double-walled structure. The glass structure may be repeatably removed for cleaning or replacement. The insulated structure includes a deformable flange that secures the glass structure to the double-walled structure. The insulated container may be vacuum-insulated.

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.

The coffee mug or drink container has an internal multi-cup compartment. A thermally insulated container (liquid containment store) has a lid with drink spout(s) (if the drink container is not a bottle). The special container has an internal dry store for two or more cups placed in a storage compartment beneath the bottom of the container. Identically shaped cups nest together (stacked) in the dry store on a nested cup support with a complementary surface to limit vertical and horizontal jostling and cup damage. Sometimes the cups are frusto-conically shaped or are matching convex/concaved shaped. An added secondary storage container is included for coffee or drink additives.

Disclosed is a vacuum compartment structure for a cup lid and a manufacturing method thereof. The vacuum compartment structure for a cup lid includes a stainless steel cylinder body and a compartment upper cover. The compartment upper cover is covered on the cylinder body and has an inwardly recessed shape, and the compartment upper cover and the cylinder body are fixedly connected and sealed by laser welding. The compartment upper cover and the cylinder body form a vacuum chamber, which has a getter therein. The compartment upper cover is arranged with a plastic upper cover layer, an outer surface of the cylinder body is wrapped with a plastic lower cover layer, and the plastic upper cover layer is combined with the plastic lower cover layer to fasten and wrap the compartment upper cover and the cylinder body.