A stackable storage rack, which includes a base with multiple sockets for connecting a respective pair of vertical support members in a manner that permits multiple storage racks to be stacked on-site with their respective vertical support members attached and in a standard shipping container without their respective vertical support members attached. The storage rack also maximizes the storage capacity in a standard shipping container when it is loaded in a standard shipping container with its vertical support members attached.

The carriage decking device comprises four deck maneuver rails arranged in pairs and opposite one another, and connectors, connected at the deck maneuver rails, and which are capable of sliding up and down along the deck maneuver rails. A certain number of positioning holes are axially distributed on the deck maneuver rails. Yokes are connected on external sides of each connector, and partitions are fastened between the yokes. A depressed mounting cavity is provided on the internal side of each yoke, and a stop pin is provided inside the mounting cavity. A connecting hole that aligns with the stop pin is provided on each connector, and the stop pin extends into the connecting hole. A clutch that enables the stop pins in the mounting cavities to connect with the positioning holes of corresponding deck maneuver rails or to detach from the positioning holes simultaneously is provided between two neighboring yokes. and easily adjustable heights.

A method and system for a mobile power generation system is disclosed. The mobile power generation system may comprise one or more shipping containers, which may be pre-wired and pre-configured so that configuration and deployment at the deployment site is simplified. The one or more shipping containers may include a PV subsystem, a battery subsystem, PCS, control electronics, and the like. The one or more shipping containers may be pre-configured for power transfer and for communication between the various devices so that less configuration is necessary at the deployment site.

Systems and methods are disclosed for flexible container pods for use with robotic systems. In one embodiment, an example flexible container pod may include a center plate having a plurality of apertures, a first member coupled to an upper end of the center plate, a second member coupled to the upper end of the center plate, and a base coupled to the center plate. The flexible container pod may include a first net extending from the first member to the base, a second net extending from the second member to the base, a first shelf member coupled to the first net, and a second shelf member coupled to the second net. A container can be removably positioned on the first shelf member and the second shelf member.

An improved shelving unit for a shipping container is disclosed herein. The improved shelving unit can comprise one or more shelf assemblies and an RFID reader. Each of the one or more shelf assemblies can comprise a bottom platform and a top platform. The RFID reader can be mounted between the bottom platform and the top platform. The top platform can be capable of supporting items.

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 method for using an industrial shipping rack, including connecting structural members and fasteners to form racks, loading and shipping the racks, unloading the racks, nondestructively disassembling the racks back into structural members and fasteners, and storing the structural members and the fasteners for reuse. Other aspects include receiving industrial/shipping rack designs, locating the racks in shipping containers, placing parcels on the at racks, removing the parcels from the racks, constructing the racks using brackets, converting rack specifications based on inventories, and using thin-walled, metal tubing.

Systems and methods for delivering a requested payload using an autonomous delivery vehicle are described herein. In some embodiments, a cargo system for use with an autonomous delivery vehicle can include a frame defining a cargo space having an opening. A plurality of partitions can be positioned within the cargo space and configured to divide the cargo space into compartments. In some embodiments, the partitions are movable so that the cargo space can be divided into efficiently-sized compartments based on, for example, size characteristics of the payload. The cargo system can further include an access system configured to selectively define an aperture over the opening of the cargo space. The access system can vary the size and position of the aperture to provide access to only a selected one of the compartments regardless of the size and/or position of the selected compartment.

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.

A modular system for transporting wind turbine blades in at least two different spatial arrangements comprising two or more root end transport frames having a height H for supporting the root end, wherein H<D (D=bolt circle diameter), and two or more first tip end transport frames having a height H1 for supporting the blade towards the tip end, each first tip end transport frame has a base frame and a support bracket provided on top of the base frame, wherein each first tip end transport frame is stackable on top of a root end transport frame and vice versa, so the system is operable to stack successive blades in an alternating root end to tip end arrangement. The first tip end transport frame is replaceable with a second end transport frame that increase the inter-blade spacing, or with a tip end or a root end distance piece.