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 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.

Thermal-insulation container 1, comprising a bottom 26, side walls 21, 22, 23, 24 arranged on the bottom 26 and a lid 25 arranged on the side walls 21, 22, 23, 24, wherein the bottom 26, the side walls 21, 22, 23, 24 and the lid 25 completely enclose an interior space 3, and wherein the lid 25 has a heat transfer coefficient k.sub.D, the bottom 26 has a heat transfer coefficient k.sub.B, and each of the side walls 21, 22, 23, 24 has one of the heat transfer coefficients k.sub.S1, k.sub.S2, k.sub.S3 or k.sub.S4, and further k.sub.D<minimum [k.sub.S1, k.sub.S2, k.sub.S3, k.sub.S4, k.sub.B].

A natural fiber-based insulating panel system to facilitate shipping. One or more natural fiber-based panels are inserted into the interior of a shipping container to encapsulate the payload, or on the exterior of the shipping container to encapsulate the shipping container and payload. A film or membrane may encapsulate one or more of the insulating panels. Micro perforations may be present in the membrane to facilitate the capture of moisture from the interior.

An insulating container having a base and a lid is provided. In some examples, the insulating container further includes a pressure regulation device. In other examples, the insulating container may include latching devices comprising an elastomeric latch upper and a semi-rigid latch lower configured to engage an insulating container keeper when the lid is in a closed and a secured position. In still other examples, the latch upper and the latch lower are configured in a recessed position, and flush with a front side of the insulating container lid and flush with a front side of a bottom portion of the insulating container when the latches secure the lid in a closed position.

Method and system for storing and/or transporting temperature-sensitive materials. In one embodiment, the system is designed to keep a payload within a desired temperature range of +2° C. to +8° C. for an extended time in a warm ambient environment. The system includes a thermally insulated container and first and second phase-change materials, each of the phase-change materials having a different solid/liquid phase-change temperature. Both phase-change materials are preconditioned to a solid state for pack-out. The first phase-change material has a solid/liquid phase-change temperature that is within the desired temperature range and that is at or below a hibernation temperature of about +5° C. to +6° C. The second phase-change material has a solid/liquid phase-change temperature that is above the hibernation temperature. When placed in the warm ambient environment, both phase-change materials move towards melting; however, when subsequently placed in hibernation, the second phase-change material reverses the direction of its phase change, becoming recharged.

The invention relates to a stacking container (1) for the temperature controlled transport of food, comprising an outer container (3) with an outer container base (31) and an outer container wall (32) which are connected together so as to form a receiving area (33) which is open on one side. The stacking container (1) additionally comprises an inner container (2) with an inner container base (21) and an inner container wall (22) which are connected together so as to form a container area (23) which is open on one side. The inner container wall (22) comprises an upper edge section (221), and the outer container base (31) comprises a lower edge section (311), said upper edge section and lower edge section being designed in a complementary manner in order to engage into each other when stacking containers (1) are stacked one over the other such that the outer container base (31) of an upper stacking container (1) in the stack forms a cover for a stacking container (1) arranged therebelow, and a vacuum insulating element (5) is arranged between the inner container wall (22) and the outer container wall (32) and between the inner container base (21) and the outer container base (31).

A thermal insulation cabinet and a manufacturing method therefor, and a refrigerator having same. The manufacturing method for the thermal insulation cabinet comprises the following steps: pre-assembling a shell having a vacuum insulation panel attached to the inside, into a cabinet shell; heating the inside of the cabinet shell; and injecting a foaming material between the cabinet shell and an inner liner for foaming. According to the present invention, the inside of the cabinet shell is heated, such that the inner surface of the shell can reach a target temperature required for foaming, thereby reducing or avoiding a surface crusting phenomenon, and improving a thermal insulation effect of the thermal insulation cabinet.

Thermally insulated carrier bag to be carried by one person, comprising an insulation cover with a base insulation element, a peripheral insulation side wall (and a cover insulation element, which are designed in such a way as to form a receiving space. Enclosing, further comprising a carrying case with a base element, a peripheral side wall and a cover element, which are designed in such a way as to enclose an interior space for the insulation case, the base insulation element and/or the insulating side wall and/or the lid insulating element comprise at least one vacuum insulating element, and the carrying case has at least one carrying element for carrying by one person.