A Functional Training System (FTS) is provided and includes a system container, wherein the system container includes a container front, a container rear, a container first side, a container second side, a container bottom, and a container top, wherein the container front, container rear, container first side, container second side, container bottom, and container top define a container cavity. The FTS further includes an exercise structure, wherein the exercise structure includes a platform connector, wherein the platform connector is non-perpendicularly and securely associated with at least one of the container front, container rear, container first side, container second side, container bottom, and container top, and wherein when the exercise structure is securely associated with at least one of the container front, container rear, container first side, container second side, container bottom, and container top, the exercise structure is supported by the system container.

A convertible shipping container includes a first longitudinal edge and a second longitudinal edge that is diagonally opposed to the first longitudinal edge in a first configuration and a hinged longitudinal edge and a lockable longitudinal edge that is diagonally opposed to the hinged longitudinal edge in the first configuration. The first longitudinal edge and the second longitudinal edge each comprise 90° fixed edges, and the lockable longitudinal edge is configured to be unlocked and opened to thereby expand the convertible shipping container into a second configuration.

A hollow container or box formed from a roof, a first side (i.e., or first upper and lower sides), a second side (i.e., for second upper and lower sides), a rear side (i.e., or rear upper and lower sides), a door (i.e., or upper and lower door), and a base placing the container or box in a fully assembled position. Unique side and end access doors are provided. Each of the sides are releaseably coupled or hingedly connected to one another and the adjacent sides are hingedly coupled to the base. Upon releasing the sides from one another and rotating each relative to one another in a particular order along various axis rotation, the container or box is transitioned from a fully assembled position into a flat, parallel orientation, fully collapsed position.

The invention is directed to a portable container system comprising a container which comprises a floor, four upwardly-extending sidewalls, wherein at least one of the sidewalls is hinged to allow the at least one sidewall to open outwardly, and a top wall. The system also comprises a plurality of skids contained within the container. Each skid comprises a base and one or more upwardly extending members; and one or more cabinets mounted on the base or one or more upwardly extending members, wherein the one or more cabinets comprise: control power distribution panel cabinets, human-machine interface cabinets, programmable logic controller-redundancy cabinets, network cabinets, or remote I/O cabinets.

A functional training rig kit includes a box and a plurality of components adapted to fit within the box. At least some of the components and the box include elements by which the components are adapted to be attached to the outside of the box to provide at least one functional training rig attached to the outside of the box.

An example reinforced wood flooring for use in forming a truck trailer or container floor may include a wood member. The wood member may include a plurality of wood strips that are attached together. The wood member may also have a top surface and a bottom surface. An essentially water impermeable fiber-reinforced thermoplastic underlay may be adhered to the bottom surface of the wood member.

A foldable shipping container adjustable between an unfolded condition in which said container is suitable for use as a cargo container, and a folded condition for when said container is not being used to store or ship cargo. The foldable shipping container having ways for controlling the rate at which the panels collapse.

An energy storage system includes a plurality of battery strings, each battery string including a plurality of batteries coupled electrically together; a plurality of temperature sensors; an enclosure housing the plurality of battery strings and the temperature sensors; a plurality of fans positioned in different locations within the enclosure; and a temperature control system. The temperature control system includes a heating, ventilation, and air conditioning (HVAC) components, and a controller. The controller is programmed to execute the method that includes determining fan speed operating commands based at least in part on sensed temperatures at the different locations, and operating the fan speed in response to the operating commands provided to the respective fans.

An energy storage system includes a DC bus; a plurality of battery strings, each battery string comprising batteries coupled electrically together; a plurality of DC/DC converters electrically coupling respective battery strings to the DC bus; an enclosure housing the battery strings and the DC/DC converters; and a temperature control system. The temperature control system includes at least one heating, ventilation, and air conditioning (HVAC) system, and a controller. The controller is programmed to execute a method of predicting heat loads for respective battery strings within the enclosure, wherein the heat loads comprise external heat loads and internal heat loads; determining one or both of DC/DC converter operating commands and HVAC operating commands based on the respective predicted heat loads to control the actual heat loads of the respective battery strings; and operating one or both of the DC/DC converter and the HVAC system in response to at least one of the DC/DC converter operating commands and the HVAC operating commands.

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.