A cap for closing a container including a cap body for contacting an open end of the container and at least one connector mounted to an exterior of said cap body for coupling said cap body to the container. The at least one connector includes an engaging piece and a lever. An initial movement of said at least one connector causes said engaging piece to contact the container and a further movement of said at least one connector causes said engaging piece to affix said cap body to the container.

Provided is a folding packaging cooler box convertible from a box mode to an unfolding mode or vice versa, comprising: a box portion having a bottom portion, sidewall portions and joint portions configured to connect with one another and to form a single plane in the unfolding mode; and a cooling reinforcing portion configured to be inserted to the inside of the box and to form a hexahedron shape together with said box portion when said box portion is converted into the box mode, wherein said cooling reinforcing portion comprises a reinforcing bottom portion configured to form a lower surface and to face the bottom portion of the said box portion upon conversion into the box mode; reinforcing sidewall portions configured to connect with the said reinforcing bottom portion and to face the sidewall portions of said box portion; and reinforcing joint portions configured to join said reinforcing sidewall portions, to be folded to face itself and to be in close contact with the reinforcing sidewall portions, upon conversion into the box mode, and wherein said reinforcing bottom portion, said reinforcing sidewall portions and reinforcing joint portions form a single plane in the unfolding mode.

A heat resistant portable storage device is provided. The heat resistant portable storage unit may include an outer shell, a thermal liner, and a facing material. The heat resistant fabric that may comprise the thermal liner of the portable storage device may be comprised of non-woven fabric, may be resistant to moisture, and may be coated with one or more heat resistant coatings.

The present invention relates to a transport container which provides mechanical and thermal stability for a load and which container is fabricated as the container is loaded. In particular, the present invention relates to a container which can be readily transported on aircraft, such as an aircraft container. In the field of logistics, that is the field of movement and supply of produce and materials, in particular in the transport of intermediate and finished products, containers have been developed which safely protect from physical damage a wide variety of product. Food and pharmaceutical products not only need protection from physical shock and pressures but also require temperature stability during transportation; otherwise goods can be damaged and be unusable, whether such damage is apparent or not. However, air transport poses a particular problem: Goods can be transported in tropical heat, packaged and placed upon pallets and the like containers whereby they are presented in aircraft style containers. Such goods may be left on runways at extreme temperatures (+40° C.) and then placed within a hold where low pressures and low temperatures exist during flight. At a destination airport the temperatures may well be sub-zero. To simplify transport with respect to airports, planes and handling equipment, there have been developed aircraft Unit Load Devices (ULDs) which comprise any type of pallet or container that can easily be loaded to the aircraft by a ground handler. The present invention seeks to provide a transport container which can maintain goods within a narrow temperature range, can displace a considerably reduced volume before erection, is economical to manufacture, can readily and easily be constructed. The present invention further seeks to provide a transport container which is compatible with standard Unit Load Device specifications.

A storage box includes a wall including: a packaging member; and a heat transfer body and a cold storage agent that are stored in the packaging member. The cold storage agent is disposed closer to an outer surface of the storage box than the heat transfer body is. Consequently, a chill from the cold storage agent spreads over the heat transfer body, and the chill is transferred to an inside of the storage box through the heat transfer body. Thus, a temperature can be more homogeneously maintained in the storage box.

A packaging system for shipping a temperature-sensitive product is provided. The packaging system includes a thermally-insulated transport container providing a housing for the temperature-sensitive product and separate temperature-controlling packs and a separate rack for placement within the transport container for arranging the temperature-controlling packs. Each of the transport container and the rack has walls that are fully removable and able to be independently re-assembled during loading of the packaging system with the temperature-sensitive product and temperature-controlling packs.

An insulated container having a canister can be sealed by a lid structure. The lid structure can be a multi-part insulated lid. The lid can include a vent configured to vent air from inside the canister. In addition, the container may be part of a container kit or container system where one or more inner containers, are nested and secured within the insulated container.

A thermally insulated container includes a container main body having a storage section and an opening, a lid body that covers the opening of the container main body, and an inner box stored in the storage section. The lid body has a convex portion arranged along a periphery of the opening of the container main body and protruding toward an inside of the storage section when the lid body covers the opening. The convex portion faces the inner box, with a gap between the convex portion and the inner box when the lid body covers the opening.

A cold chain packaging system is disclosed that includes a first enclosure for receiving a payload, a second enclosure for receiving the first enclosure, wherein the first enclosure is adapted and configured to create a moat between an exterior surface of the first enclosure and an interior surface of the second enclosure for receiving a phase change material, a third enclosure for receiving the second enclosure, a plurality of spacer blocks for encapsulating the second enclosure within the third enclosure to create a void barrier between an exterior surface of the second enclosure and an interior surface of the third enclosure, and a fourth enclosure for receiving a phase change material, wherein the fourth enclosure is dimensioned and configured to be received within the second enclosure positioned above the first enclosure.

A vacuum insulator (10) includes: a core (13); a pressure sensor (51) that detects a pressure; a transmitter (52) that transmits, by wireless communication, the detected pressure detected by the pressure sensor (51); a power feeder (53) that feeds electric power to the pressure sensor (51) and the transmitter (52); and an outer skin (14), an inside of which is decompressed, the outer skin (14) accommodating therein the core (13), the pressure sensor (51), the transmitter (52), and the power feeder (53), the outer skin (14) having gas barrier capability.