A lift van crate formed as a rectilinear shaped compartment formed by a base; a first long wall having tabbed edges and a second long wall having tabbed edges, mounted to said base; a first short wall having tabbed edges and a second short wall having tabbed edges, mounted to said base, said first short wall and said second short wall having short wall receivers configured to receive at least one long wall interior tab of each of said respective adjacent first long wall and second long wall; a lid having an interior face and an exterior face, at least one lid receiver formed in said lid interior face, said lid configured to mount to each of said first long wall, second long wall, first short wall and said second short wall respectively by insertion of said tabbed edges into said at least one lid receiver.

In the present invention related to an electric vehicle battery transportation container having a shield sleeve, a ratchet tightens a belt to fix an electric vehicle battery to a seat base in a state in which a battery fixing hook connected to a leading end portion of the ratchet accommodated in a ratchet accommodation recess part formed in the seat base is inserted into an assembly hole formed in a lower bracket of the electric vehicle battery loaded on the seat base, one or more foldable anti-slip parts installed on the seat base stand upright to prevent left-right slip and front-rear slip of the electric vehicle battery at the same time, and a corner support shaft formed with an inclined structure having a decreasing inner diameter is unevenly coupled to a support shaft insertion groove to load seat bases on a transportation vehicle in multiple stages. When the seat base is manufactured as a grid frame, and front, rear, left, and right surfaces of the seat base are shielded using a shield sleeve according to the present invention, a weight of the seat base may be minimized to reduce a transportation cost when the seat base is loaded on and transported by a transportation vehicle or vessel, and contamination of the electric vehicle battery due to dust or foreign matters may be prevented while the electric vehicle battery loaded on the seat base is transported for a long time.

A package unit includes: a base on which a packaged object is placed; a box that surrounds the packaged object; and a lid that covers the box such that a surface provided with an overlapping section where a sheet is folded and overlapped serves as a high impact resistance surface when the packaged object receives an impact.

The present invention provides a thinner, movable load bearing structure having indentations, grooves, valleys, channels or other similar depressions on its underside. These depressions are mated with corresponding features for improved loading bearing capabilities. The load bearing structures also includes roughened side edges for improving the strength of the edges. The load bearing structure may be a dunnage platform or a container for storing and/or shipping cargo.

A transport support structure comprises a platform, a first frame side on the platform, a second frame side on the platform and a third frame side on the platform. The second frame side is disposed opposite and spaced apart from the first frame side, and the third frame side extends between the first and second frame sides. The transport support structure further comprises first and second support receiving members disposed under the platform. The first support receiving member includes a first opening configured to receive a first lifting device support element, and the second support receiving member includes a second opening configured to receive a second lifting device support element.

The invention relates to a collapsible ring made of several side walls (15, 16) for a transportation container (11), which is positioned to stand on a palette base (12) of a transportation palette (13) and surrounds an interior (19) delimited by the side walls (15, 16), and at least one intermediate base (31) that can be arranged in the ring (14) in a usage position (32) and having at least one releasable connection (34) formed between the side wall (15, 16) and the intermediate base (31), said connection being formed by at least one holding element (36), wherein adjacent and/or opposing side walls (15, 16) are held by the releasable connection (34) at a distance to the intermediate base (31), and the intermediate base (31) is simultaneously positioned by the releasable connection (34) to the usage position (32) in relation to the adjacent side wall.

According to one embodiment, an X-ray tube packing device packs an X-ray tube. The X-ray tube packing device includes an installation stand, an X-ray tube mounting portion to which the X-ray tube is mounted, and a rotation mechanism provided on the installation stand and that rotatably supports the X-ray tube mounting portion. The rotation mechanism changes the X-ray tube from a posture at the time of packing to a posture at the time of installation, which is different from the posture at the time of packing and is the posture at the time of placing the X-ray tube on the installation stand after unpacking.

Disclosed are systems, apparatus and methods for transporting a palletized stack of bottles or other similar bulk-produced containers using a unique pallet base and a unique set of side panels that may be engaged with the base and with each other in order to protect the stacks of bottles on the pallet base during shipping and transport. Embodiments of the invention dampen vibrations, protect the bottles from exterior contaminants, and allow the bottles to be viewed from the outside. Embodiments of the invention also provide reusable pallet systems that are easy to assemble and disassemble, and ship back for reuse.

A pallet collar which is a casing structure, generally having four walls interconnected to form a rectangular frame, and used for providing a pallet with walls enclosing a loading space thereof, to hold and protect goods placed on the pallet during storage and/or transport.

The container (10) has a lid structure (18) comprising two lid panels (20f) and (20t). The first lid panel (20t) forms at least a part of the top wall (14). The second lid panel 20f forms at least part of one of the side walls (16d). When the container (10) is in the erected condition the lid structure (18) can have one of, and be moved between, a closed configuration; top load configuration; and, front load configuration. The front load configuration has two variants. In a first front load configuration the first and second lid panels (20t) and (20f) remain connected to each other and are moved so that they are in a substantial face to face relationship. In the second front load configuration the second lid panel (20f) is pivoted to lie on top of the first lid panel (20t).