A portable storage container that is constructed so as to provide a first technique and a second technique to access the interior volume. The portable storage container of the present invention includes a base platform having a housing that is superposed the base platform and operable to be removed therefrom. The base platform includes apertures that are configured to align with mounting pins of the housing. The base platform includes wheel assemblies that are configured to assist in movement of the assembled portable storage container. A pair of lifting members are secured to the top of the housing and are configured to operably engage with forklift tongues so as to provide removal of the housing from the base platform. A door is provided on one end of the housing wherein the door provides an alternate technique to access the interior volume in addition to the lifting of the housing.

A construction material transport container includes four side doors that form substantially all of two side walls of the container. The container includes transversely disposed forklift pockets that can be used to load the container onto a flatbed truck. With the container on a truck and the side doors open, new construction materials can be loaded onto the container from both sides. Both the container and the new materials can be delivered to a job side by a single delivery using a truck-attached forklift. The empty container can then be used as a receptacle for recyclable materials. The container further includes roll-off or hook lift vehicle tracks configured so that the container can be picked up and hauled to a recycling or refuse center. A rear door of the container can be opened so that the container can be tilted by the vehicle to offload the used material.

A container energy storage system is provided in this disclosure. The system includes a container and a plurality of functional assemblies. The container includes a container frame and a bottom plate. The container frame is formed a plurality of openings and a hollow main body. The bottom plate is disposed at the bottom of the container frame and is fixedly connected to the container frame. The functional assemblies are disposed in the hollow main body and located above the bottom plate.

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 releasably 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 relates to a container arrangement comprising a plurality of connected containers, each for storing an automated storage and retrieval system. A coupling arrangement connects and aligns connected containers side-by-side. The containers may be intermodal containers. The invention also relates to a method for providing such an arrangement.

A hang harvesting system for deployment in a cargo container includes an anchor bar, a column bar, and a hanging bar. The anchor bar includes a first end portion and second end portion configured to engage sidewalls of the cargo container. The column bar includes a top end portion and a bottom end portion, wherein the top end portion is configured to couple to the anchor bar. The hanging bar is coupled to the column bar.

A container energy storage system is provided in this disclosure. The system includes a container and a plurality of functional assemblies. The container includes a container frame and a bottom plate. The container frame is formed with a plurality of openings and a hollow main body. The bottom plate is disposed at a bottom of the container frame and is fixedly connected to the container frame. The functional assemblies are disposed in the hollow main body and located above the bottom plate.

Disclosed embodiments relate to devices and methods for storage and/or transport of tubular structures, such as perforating guns for use in wellbores. Some embodiments relate to modular storage containers, for example which may be height adjustable depending on the length of the tubular structure to be held therein. Some embodiments relate to mobile storage banks, which may be configured for use with the modular storage containers. In some embodiments, the storage bank may further be configured with one or more longitudinal compartments configured to hold used tool strings or portions thereof.

A side opening intermodal shipping container has a fixed base, end walls, back wall and part of a roof. A movable entire side wall is connected to a movable partial roof. The movable partial roof is hinged to the fixed roof part. Hydraulic cylinders rotate the movable side wall and roof part, opening an entire side and a portion of the top within a limited clearance space. A large object may be loaded into the container and removed from the container indoors.

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.