In combination, a storage unit storable within a three-dimensional storage system and a storage/retrieval vehicle navigable through the three-dimensional storage system to storage locations therein at which the storage unit is selectively storable and retrievable. The storage/retrieval vehicle comprises a frame conveyable through the three-dimensional storage system, a platform atop the frame for receipt of the storage unit on the platform, and a loading/unloading mechanism operable to load and unload the storage unit to and from the platform at four different sides thereof. The storage unit and the storage/retrieval vehicle are configured to enable unloading of the storage unit from the platform in any one of four different directions at four different respective sides of the vehicle regardless of an original orientation in which the storage unit was previously loaded onto the platform and without reorienting the storage unit from the original orientation.

A double-wall vacuum-insulated food container with complementary lid is disclosed. The body of the container has a base and an upwardly-extending side wall terminating in an upper free edge. The container also has an inner portion and a complementary outer portion with a gap between. The interior of the container defines a plurality of independently sealed compartments. The lid sealingly fits onto the upper free edge of the container. The lid includes a central member and a surrounding frame with a sealing ring. The sealing ring serves as an interface between a lower peripheral edge of the frame and the upper free edge of the container. The frame has fastening members which complementary features disposed about the upper free edge of the container.

Embodiments described herein include layered mesh containers and methods for using the containers to safely transport and dispose of airbag inflators having ammonium-nitrate-based propellant. For example, a container with at least two single-layer sidewalls is provided that can hold multiple airbag inflators and withstand up to 4 moles of matter being deployed from an inflator having ammonium-nitrate-based propellant. The container can contain the inflator and any shrapnel associated with the explosion while also venting gases expelled as a result of the explosion. Various container designs are provided, along with methods for using these containers.

An equipment locking system. The system includes a base container forming a partial enclosure. The base container including a bottom wall, a set of sidewalls, a rotatable anti-intrusion lid, and a locking mechanism that form a partial enclosure. The partial enclosure is configured to enclose a piece of equipment. The partial enclosure is configured to prevent access to the piece of equipment when the rotatable anti-intrusion lid is closed. Portions of the piece of equipment may protrude from gaps in individual sidewalls of the set of sidewalls. The rotatable anti-intrusion lid can be coupled to a sidewall of the set of sidewalls and rotated about the sidewall. Portions of the rotatable anti-intrusion lid can be inserted in the locking mechanism. The locking mechanism may restrict rotation of the rotatable anti-intrusion lid when the rotatable anti-intrusion lid is in the closed position, and the locking mechanism is in a locked position.

There are provided a liquid vessel which is capable of being configured in a large size of prefabricated form, and a method for producing a glass product.

A liquid vessel for holding a liquid, comprising at least a first member, a second member and a third member; and a first engageable portion and a second engageable portion being configured such that the first member and the second member are brought into contact with each other to be engaged, and a third engageable portion being configured such that the third member is brought into contact with the first member and the second member in a direction intersecting an engagement direction of the first member and the second member to be engaged with the first member and the second member.

A metal lath having an integral hem structure includes a main body. The main body is formed by enclosing the metal lath so that the main body has a ring-shaped side wall. The side wall defines an accommodating space therein. Two ends of the main body are formed with openings to communicate with the accommodating space, respectively. One of the openings is integrally formed with a hem around an end edge of the opening by bending. The hem is integrally formed with the metal lath, which can reduce production time and cost effectively and can prevent the user from being cut by the metal lath.

A bath kit configured to transition from a crate form to a bathroom form is provided. The bath kit includes a bathtub enclosure surrounded by a first sidewall sub-assembly, a second sidewall sub-assembly, a rear bracing sub-assembly, a drop ceiling sub-assembly, and a floor sub-assembly. The sub-assembly components form the three sides, a top, and a bottom of the bath kit in crate form. These components are also configured to form the walls, ceiling, and floor of the bathtub enclosure in the bathroom form. The method of assembling the bath kit and the method of transforming the bath kit from a crate form to a bathroom form are also provided.

A configurable container assembly is described. Embodiments of the configurable container assembly can include a container having a plurality of slots located around a perimeter of a top of the container. The slots can be configured to receive protrusions of one or more accessories. The configurable container assembly can be implemented in a closed configuration and an open configuration.

A configurable container assembly is described. Embodiments of the configurable container assembly can include a container having a plurality of slots located around a perimeter of a top of the container. The slots can be configured to receive protrusions of one or more accessories. The configurable container assembly can be implemented in a closed configuration and an open configuration.

A shipping container for shipping thermally active materials includes a plurality of structural panels that define a container interior, and are configured for receiving the thermally active materials. The container also includes an exterior disposed adjacent to an environment in which the shipping container is disposed. A thermal barrier member is placeable between the thermally active materials and the environment in which the container is placed. The thermal barrier includes a thermal barrier interior panel and a thermal barrier external panel defining a heat absorbing material receiving cavity. A flowable polymer based heat absorbing material is disposed within the heat absorbing material receiving cavity. The thermal barrier is configured to substantially surround the thermally active materials to reduce the passage of thermal energy between the thermally active materials and the environment in which the shipping container is disposed.