The invention relates to a detachable pallet which comprises a plurality of slides and a plurality of cross-members, wherein the slides comprise anchoring elements, both rigid stops and flexible stops, which contribute to attaching the cross-members to the slides, all in cooperation with tongues and grooves provided in the sides of the cross-members, which are inserted into one another creating a solid, robust joint and a complete load surface. The pallet can also have a tie rod joined to the bottom of the slides, securing same and providing greater robustness to the assembly, allowing it to be used on roller lines.

Methods, devices, and systems for assembling a pallet are provided. In particular, a pallet is provided that is made from multiple pieces that are bent from an initial planar shape to a final shape. In some embodiments, a transverse piece locks at least one longitudinal piece in the final shape without the use of fasteners or adhesives. The resulting pallet can be loaded with materials and then maneuvered and transported using a forklift. In addition, the pieces can be made from cardboard which significantly reduces the weight of the pallet.

A cavity is cut into a wooden structure (e.g., stringer, block, or deckboard) of a wood pallet such that an electronic tracking device can be embedded into the wooden structure for tracking the pallet. The cavity is shaped to allow for a sufficient thickness of remaining wood material surrounding the cavity to remain strong and also to allow for sufficient thinness so wireless signals can be reliably transmitted to/from electronics within the cavity. The remaining space within the cavity around the embedded tracking device is filled with a potting material to secure and protect the tracking device within the cavity. The tracking device monitors the location of the pallet and provides location data to a back-end system over a communication channel either directly or via a local hub. The back-end system performs analytics on the location data.

A pallet top deck, a bottom deck, and spaced apart support blocks coupled between the top and bottom decks. Each support block includes an inner wall surrounding an interior opening, an outer wall surrounding the inner wall, and a plurality of ribs extending between the inner and outer walls. First and second upper tabs extend outwards from upper surfaces of the inner wall, with each upper tab comprising an angled contact surface for engaging the top deck. The angled contact surfaces of the first and second upper tabs are oriented in a first direction. First and second lower tabs extend outwards from lower surfaces of the ribs, with each tab comprising an angled contact surface for engaging the bottom deck. The angled contact surfaces of the first and second lower tabs are oriented in a second direction that is orthogonal to the first direction.

A system for managing lifecycles of pallets remotely located from one or more servers has at least a first database defining information for managing the lifecycles of the plurality of pallets. Each of the plurality of pallets has a pallet monitoring device physically coupled thereto. The system includes one or more pallet management components communicatively coupled to, and remotely located from, the one or more servers, and each pallet management component manages, at least in part, a lifecycle of one or more of the plurality of pallets based at least in part on the information defined in the first database. At least one of the one or more pallet management components may be included in a pallet monitoring device physically coupled to the one or more pallets, and the pallet monitoring device may be in direct communication with at least one of the one or more servers.

A device for monitoring and managing a pallet includes one or more sensors for determining properties associated with a pallet, which may include a weight of a load of a pallet, and the presence, number and/or location of one or more load items on a pallet. The device may be physically coupled to a pallet, and may include a processing unit coupled to the one or more sensors, the processing unit having one or more interfaces to communicate with the one or more sensors, and one or more interfaces to communicate with one or more networks. The device may include one or more hydraulic mats including one or more pressure sensors, and RFID (UHF) and/or optical code readers for detecting and/or identifying load items. The device may include RFID (NFC) readers for exchange of payment and access information. The device also may include multiple layers, each of which may include one or more cavities for accommodating components of the device.

A pallet includes a top deck, a bottom deck, and spaced apart support blocks coupled between the top and bottom decks and forming an opening therebetween for receiving a lifting member. The top deck includes at least one deck scoop area on an underside thereof. A thickness of the top deck is reduced in the at least one deck scoop area to reduce influence of top deck deflection on ability of the lifting member to pass through the opening between the top and bottom decks.

Three approaches for attaching tracking devices to pallets. In a first approach, one or more electronic components of a tracking device are disposed within a cavity of a block of a pallet. In a second approach, one or more electronic components of a tracking device are disposed within a strut that interfaces between two beams of a pallet. In a third approach, one or more electronic components of a tracking device are disposed within a cavity of a beam.

A stackable pallet display system includes a tray portion having a rectangular bottom wall, corner posts extending upward from corners of the tray portion and an interior divider panel extending upward from the tray portion. The tray, corner posts and interior divider wall of the system can be folded from blanks of material.

A cavity is cut into a wooden structure (e.g., stringer, block, or deckboard) of a wood pallet such that an electronic tracking device can be embedded into the wooden structure for tracking the pallet. The cavity is shaped to allow for a sufficient thickness of remaining wood material surrounding the cavity to remain strong and also to allow for sufficient thinness so wireless signals can be reliably transmitted to/from electronics within the cavity. The remaining space within the cavity around the embedded tracking device is filled with a potting material to secure and protect the tracking device within the cavity. The tracking device monitors the location of the pallet and provides location data to a back-end system over a communication channel either directly or via a local hub. The back-end system performs analytics on the location data.