Method and system for maintaining temperature-sensitive materials. According to one embodiment, the method involves positioning temperature-sensitive materials within a product box and positioning phase-change material around the product box. If the edges of the product box where adjoining sides meet are covered by phase-change material, then the product box and the phase-change materials are loaded into a frame-and-panel-type insulated container in which an insulating material having a higher R-value is located along the container edges and an insulating material having a lower R-value is spaced away from the container edges. By contrast, if the edges of the product box are not covered by phase-change material, then the product box and the phase-change materials are loaded into a frame-and-panel-type insulated container in which an insulating material having a lower R-value is located along the container edges and an insulating material having a higher R-value is spaced away from the container edges.

A spray foam insulator assembly for retaining a pressurized can of spray foam at a preferred temperature includes an insulating sleeve that has a diameter of at least 68.0 mm and a height of at least 245.0 mm to insertably receive a pressurized can of spray foam. The insulating sleeve is comprised of a thermally insulating material to retain the pressurized can of spray foam at an optimal temperature for enhancing functionality of the pressurized can of spray foam. The insulating sleeve has a cut integrated into the insulating sleeve to enhance inserting the pressurized can of spray foam into the insulating sleeve. A closure is integrated into the insulating sleeve for opening and closing the cut. A belt clip is coupled to the insulating sleeve to engage an article of clothing on a user for storing the insulating sleeve.

An insulating container can be configured to retain a volume of liquid, and include a canister having 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 spout adapter, the spout adapter having a spout channel extending between the internal reservoir and a spout opening, smaller than the opening of the canister. The spout opening may be sealed with a cap having a magnetic top surface, and the spout adapter may be further removably coupled to a lid that may be used as a cup into which a volume of the liquid can be poured.

An insulating device may include a body comprising an outer shell, an insulating layer and aerogel structure adjacent to the outer shell, and an inner liner secured to the outer shell. The aerogel structure may comprise skiving features that extend from a surface of the aerogel structure to a mid-point width of the aerogel structure and may be configured to facilitate folding of the aerogel structure.

An insulating device may include a body comprising an outer shell, an insulating layer and aerogel structure adjacent to the outer shell, and an inner liner secured to the outer shell. The aerogel structure may comprise skiving features that extend from a surface of the aerogel structure to a mid-point width of the aerogel structure and may be configured to facilitate folding of the aerogel structure.

The double walled vacuum insulated beverage housing system provides an aperture for receiving a heat transfer unit. The heat transfer unit also provides an aperture for receiving a beverage vessel within the heat transfer unit. The heat transfer unit stores a heat transfer material including but not limited to a fluid, gel, phase change material, or other substance that can be heated or cooled depending upon the desired effect on the beverage. A retention shoulder secures the heat transfer unit adjacent an insulating chamber to insulate both the heat transfer unit and the beverage.

A temperature insulated packaging system includes a container having interior surface bounding an interior volume and a liner disposed within the interior volume and at least partially bounding a compartment configured to receive an item for temperature insulated shipping. The liner includes a first sleeve made of cellulose material and at least partially bounds a channel. The first sleeve has an outside wall disposed adjacent to the container and an opposing inside wall disposed adjacent to the compartment configured to receive the item for shipping, the channel being disposed between the inside wall and the outside wall. At least one insulation sheet is disposed within the channel of the first sleeve, the at least one insulation sheet being made of a cellulose material and having a plurality of recesses formed thereon.

An insulating device can include a body assembly and a lid assembly where an insulating layer is connected to both the body assembly and the lid assembly. An aperture with a closure is formed between the body assembly and lid assembly to form a storage compartment. An insulating tab may be formed from a portion of the insulating layer and an inner liner of the body assembly to help insulate the closure region. In addition, a first magnetic element may be secured within the insulating tab that may engage a second magnetic element secured within the lid assembly.

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.

An insulated bag includes a pair of opposing main panels; and a pair of opposing side panels, each side panel attached to each main panel, the main panels and the side panels defining a bag cavity within the insulated bag; the main panels and the side panels defined in an insulated blank, the insulated blank including a first paper layer; and a paper fiber pad coupled to the first paper layer, the paper fiber pad having paper reinforcement fibers interlocked with about 2% to about 25% by weight of a meltable PE/PP bi-component thermoplastic binder fiber distributed substantially randomly, wherein subjecting the repulpable shipping container to a repulpability test produces greater than 85% fiber yield.