A bulk material shipping container including a pallet, a compartment configured to receive, hold, and release loose materials and connected to and supported by the pallet, a material unloading assembly positioned under a bottom portion of the compartment, configured to facilitate the release or unloading of loose materials from the compartment, and connected to and supported by the pallet, and a material loading assembly configured to facilitate the loading of loose materials into the compartment and connected to and partially supported by a top wall assembly of the compartment.

A storage and handling system for elongated tubing and bar stocks comprises a storage rack having cantilever arms. A material storage pallet is supported by the cantilever arms. The pallet is formed by a single-layer tubular frame having a pair of inset fork tubes to receive the tines of a forklift and which directly support loads carried on the pallet. A plurality of vertically-oriented receiving holes are disposed in transversely-aligned rows across the length of the pallet to receive a plurality of organizer pins that restrain therebetween elongated raw materials stacked transversely on the pallet. The system may be paired with a roller cart configured to transfer one of the pallets to and from the storage rack.

A package for storing and/or shipping cable includes: a platform having a flat panel having upper and lower surfaces, first locating features on the upper surface, and second locating features on the lower surface; a generally cylindrical hub having a first diameter mounted on the upper surface of the flat panel, the hub engaging and being positioned by the first locating features; and a cable coiled around the hub.

Disclosed is a drum stacking assembly 100. The assembly 100 comprises a first set of plurality of drums 108a and a second set of plurality of drums 108b, positioned relative amongst each other via a first connector 101 and a second connector respectively. Further, said assembly 100 comprises a pallet 109, wherein a top surface of the pallet 109 comprises a plurality of support shells 601 further comprising at least a plurality of ribs 602 adapted to support the first set of drums 108a. An outer reinforcing ring of the bottom surface of the first set of drums 108a is guided in the plurality of ribs 602. Further, a bottom surface of the pallet 109 comprises a plurality of grooves 202 further comprising at least a plurality of indentations 603 adapted to engage an outer reinforcing ring 301 of the upper surface of the second set of drums 108b.

Devices and systems can be used to enhance warehouse material handling operations. For example, this document describes pallet stands that make material handling processes more safe and efficient. In some embodiments, a pallet stand described herein includes a structure comprising a top configured for a pallet to rest on and a pedestal arranged to elevate the structure above a floor. The pedestal has an outer size that is less than the width of the top structure and less than the length of the top structure.

Methods are presented which include moving a self-stabilizing platform assembly with product disposed on a deck of the self-stabilizing platform assembly. The self-stabilizing platform assembly includes multiple torque-generating devices, a stability control system to control operation of the multiple torque-generating devices, and the deck to support the product being moved. The methods also include adjusting, by the stability control system, operation of one or more torque-generating devices of the multiple torque-generating devices to produce during the moving a stabilization torque within the self-stabilizing platform assembly to facilitate stabilizing the self-stabilizing platform assembly and product during moving of the self-stabilizing platform assembly and product.

A platform including a top deck is configured to receive a pallet when stacked thereon. The top deck includes at least one integrally formed recessed support configured to receive a pallet support of the pallet. The at least one recessed support includes a perimeter recessed in the top deck and which defines a cavity configured to receive the pallet support.

A pallet structure includes a positioning mechanism is provided. The positioning mechanism includes an engaging element disposed on a sloping edge and adapted to be engaged with slits formed on the inclined surface of a vehicle. A coil spring is connected between the engaging element and the sloping edge and biasing the engaging element to protrude outward from an outer surface of the sloping edge. A retaining element is disposed between an inner surface of the sloping edge and a bottom deck board of the pallet and configured to retain the engaging element to move between an engaging position and a disengaging position. The protruding end of the engaging element is protruded outward from the outer surface of the sloping edge in the engaging position, and the protruding end of the engaging element is not protruded from the outer surface of the sloping edge in the disengaging position.

A method for assembling a corrugated skid includes selecting first and second planar corrugated blanks and folding the first blank to produce a first double thickness rib that extends out of the plane of the first blank. That blank is placed on a horizontal surface having blades protruding upwards such that the blades penetrate the middle of the double thickness rib and hold it perpendicular to the horizontal surface. The second blank is folded to produce a second double thickness rib that extends out of the plane of the second blank. The second blank is placed on top of the first blank such that the first rib penetrates a slot in the second blank, and the first and second blanks are engaged with one side of each blank facing each other forming a double thickness skid deck with ribs forming depending legs for supporting the skid deck above a supporting surface.