A cargo securement system for securing cargo in a container includes a number of upper and lower braces. The upper braces abut a ceiling of the container and the lower braces abut a floor of the container. The lower braces have a module engagement rail sized to slide within a rail guide of a module to guide the module to stowed position within the container and prevent movement of the module along a horizontal and a vertical axis. Bracing rods provide a compressive force to the upper and lower braces to provide a pressure fit that secures the braces and corresponding modules in place.

A cargo securement system for securing cargo in a container includes a number of extendable upper and extendable lower braces. The extendable upper braces mount to an upper portion of the framework of a module and extend to engage the container. The extendable lower braces extend from the floor system of the module and engage the walls of the container to apply a force that secures the module in place.

A modular facility formation system includes any number of modules that may be coupled to one another to create a facility. Walls of the facility may be provided by one or more removeable walls, the walls of a shipping container, or a combination thereof. When installed within a shipping container, upper and lower braces are pressure fit into the shipping container without penetrating the container. The lower braces are configured to engage guidance mechanisms of the modules to guide the modules into a stowage position within the shipping container and to secure the modules in place. The modules may be configured with a pre-determined internal configuration corresponding to a defined function of the room within the facility.

A liquid product storage and delivery system is provided. The liquid product storage and delivery system includes a storage tank and a liquid bladder supported inside of the storage tank.

What is disclosed is an assembly system to create customizable, mobile, lightweight containers and container-like products ranging in size from consumer and commercial storage products to shipping containers and small mobile buildings. The system uses slidable interconnection of various profile shapes of elongated panel modules with same length standardized linear and corner panel connectors, to create container sleeves retained by customizable end framing to become container shells. The container shells are customized to size needed by the number of interconnected panel modules used and the length to which they are cut. Assembly of their few basic parts is simple with a limited range of tools and skills needed. The system further provides for simple, seamless, solid and reversible structural attachment of third party components, without welding or riveting, to achieve specific customization goals as needed. Finally, the system provides for easy and scar free disassembly for shipping, storage reconfiguration, or recycling.

A container energy storage system is provided, including a container, a plurality of functional assemblies, and a splitting plate, wherein the splitting plate has a connecting port electrically connected to the functional assemblies. The container includes a hollow main body having an opening and two doors pivotally connected to the hollow main body. The functional assemblies are disposed in the hollow main body, and the splitting plate is disposed between the functional assemblies and the opening. When the doors are in a closed position, the doors cover the opening.

An airbag system for securing cargo in a container configured as disclosed herein can include: a support structure adapted to attach to a ceiling of the container; an array of airbags suspended from the support structure, each airbag being removeably detachable from the support structure; an air pressure system in fluid communication with each air bag of the array of airbags; and a control system adapted to control the air pressure system to inflate the array of airbags. In an inflated configuration, the array of airbags extends downward from the support structure toward a floor of the container until each airbag of the array of airbags contacts an upper surface of the cargo or the floor of the container.

A container for holding product therein during shipment and being returned for reuse has guides containing generally L-shaped slotted tracks having horizontal and vertical portions. A plurality of dunnage supports extend between the tracks. Dunnage is suspended by the dunnage supports. The dunnage supports have narrowed portions engaged with the slotted tracks.

The present invention relates to a container, and more particularly, to a container having an anti-vibration property so that the container does not shake in vibration.

The container comprises a bottom part, a ceiling part facing the bottom part, a sidewall part connecting the bottom part to the ceiling part, and a rack installed to be fixed in an inner space that is surrounded by the bottom part, the ceiling part, and the sidewall part.

A container energy storage system is provided, including a container, a plurality of functional assemblies, and a splitting plate, wherein the splitting plate has a connecting port electrically connected to the functional assemblies. The container includes a hollow main body having an opening and two doors pivotally connected to the hollow main body. The functional assemblies are disposed in the hollow main body, and the splitting plate is disposed between the functional assemblies and the opening. When the doors are in a closed position, the doors cover the opening.