A shock pallet assembly allows transport or movement of tall rack-mounted information handling systems (IHSes) without tipping. The shock pallet assembly can resiliently, manually or automatically retract for placement near a wall of a transport conveyance to achieve a greater shipping density of IHSes. The shock pallet assembly can include a bottom structure having a pair of parallel apertures to receive tines of a forklift. Resilient padding is positioned on a top surface of the bottom structure to provide shock dampening. A top deck is attached on top of the resilient padding and bottom structure to form a shock pallet that receives a racked-mounted IHS for transport and movement. An anti-tip mechanism can be attached to a lateral side of the shock pallet to prevent tipping of the rack-mounted IHS.

Pallet (1) comprised of at least one loading plane (2), on which goods or the like are placed during use of the pallet, and at least one pallet foot (3) or several pallet feet (3). The loading plane (2) is comprised of at least one first material layer (10) of corrugated fiberboard and at least one second material layer (11) of corrugated fiberboard and at least one third material layer (14) of corrugated fiberboard which are joined together by gluing. The adjacent material layers' corrugated mediums are twisted in relation to one another. The loading plane (2) is further comprised of at least one surrounding covering that encloses or essentially encloses the material layers and that the enclosing covering is comprised of at least one first shroud (8) and at least one second shroud (9) of water repellent or water resistant material. In alternative embodiments, the pallet is comprised of at least one pallet collar (4).

The invention relates to a pallet (1) comprising a first plate (10) and a second plate (20), wherein said first plate (10) and said second plate (20) are parallel, and wherein said first plate (10) and said second plate (20) each extend along a length (L) and a width (W) of said pallet (1), and wherein said pallet (1) comprises a height (H) which extends transversely to said length (L) and said width (W), and wherein said pallet (1) comprises at least one supporting element (11) which is integrally formed with said first plate (10) and/or said second plate (20), wherein said at least one supporting element (11) extends between said first plate (10) and said second plate (20) along said height (H).

The invention relates to a pallet (1), comprising a basic body (10) with a first panel (11), a second panel (12) and a layer (13) having a plurality of tube segments (14) which is arranged between the panels (11, 12), wherein the layer (13) has at least one cutout (131) which is continuous in the direction of a pallet height (HP), and wherein the first panel (11) has at least one first opening (111) which at least partially overlaps with the at least one cutout (131). The invention further relates to a foot (16) and a runner (17) for a pallet (1), to a sandwich block (2) for producing a layer (13) of a pallet (1), and to a method for producing a pallet (1).

The invention relates to a pallet (1) comprising parallel panels (11, 12), a layer (13) arranged between the panels (11, 12) and formed by at least one spacer (18), having a respective first strip (15a) and a plurality of tube segments (14), wherein the tube segments (14) have two respective cut ends (141, 142) and two respective cut surfaces (143, 144), wherein the tube segments (14) are mechanically connected to the first strip (15a) by their cut ends (141, 142), and mechanically connected to the panels (11, 12) by their cut surfaces (143, 144), wherein the tube segments (14) of the at least one spacer (18) have two respective lateral elements (146) and a cover element (147) mechanically connected to the lateral elements (146), wherein the lateral elements (146) form a first internal angle () of 95 to 120 with the cover element (147).

A multi-use pallet comprising a main body member, a male wing member, a female wing member, and a pair of risers, wherein the components can be re-arranged and interconnected with one another into a variety of other configurations and uses such as elevated flooring, roadways, temporary pathways, and walls. The interconnectivity of the multi-use pallet components provide an array of versatile uses to the user, and the arrangement of parts provides greater structural support and higher load-bearing potential.

A pallet for supportively carrying and transporting goods as a unit load in a stable efficient manner is disclosed. The pallet can be configured as a rigid or easily disassemblable compact collapsed structure. Interlocking frame members form an upper planar surface with one or more gap or void areas. A sheet of flexible material operatively secured to the frame is tautly stretched to overlie the void areas and forms a structural part of the upper planar surface to counteract downward load forces applied to the fabric over the pallet surface void areas. The sheet material preferably comprises woven polypropylene material.

A twin-sheet, thermoformed pallet is configured with a bottom-opening recess shaped to receive and hold in place a signal transmitting device. The recess has undercuts that allow the device to be snapped in and held against the floor of the recess and well above the bottom surface of the pallet body. The recess is provided with access for a tool to pry the device out for replacement or servicing.

A pallet has a rectangular pallet deck with a generally planar upper surface, and a plurality of pallet feet connected by shear members at the four corners. The pallet has an open bottom with a clear span between the pallet feet to allow multiple pallets to be nested together. The pallet feet each have an L-shaped cross section. Holes are formed in the pallet deck to accommodate pallet feet of other pallets when the pallets are nested together. In one embodiment, pallets are nested together by offsetting the pallets in a longitudinal direction. In another embodiment, pallets are nested together by rotating the pallets a quarter turn relative to each other. A metal reinforcement frame is provided inside a plastic exterior to provide increased strength and reduced deflection.

A corrugated skid includes top and bottom blanks that are folded and assembled together to produce a double thickness deck supported by double thickness ribs that are folded downward from deck portions of each blank. The ribs of the top blank are split into three sections by two fork passages. The three sections penetrate through slots in the deck portion formed by the bottom blank. The double thickness ribs of the top and bottom blanks intersect with notches at a location below the deck. The double thickness ribs of the top and bottom blanks intersect each other near the center of the corrugated skid to form a continuous four-sided rib support rectangle that resists shifting between the top and bottom blanks.