Abstract: A multi-nodal supply chain system including multiple interconnected entities and a method for executing a supply chain workflow using transportable and continuously trackable, standardized storage bins is provided. The entities include a network of node facilities distributed throughout a geographical region, inter-nodal transport vehicles (INTVs), storage bins storable in indexed storage locations within the node facilities and the INTVs, and a computerized system. The computerized system stores bin identifiers of the storage bins and location identifiers of the indexed storage locations and dynamic storage locations of the storage bins. The computerized system also updates the location identifiers as the storage bins are transferred between the node facilities and the INTVs.

Abstract: A multi-entity inventory management system including reassignable storage bins and a method for managing product inventory of different entities, for example, vendors, at one or more facilities including one or more storage structures served by robotic handlers, are provided. Each storage bin stores one or more caches of the products. A computerized inventory management system (CIMS) stores digital records including entity identifiers, product catalogues containing product identifiers of the products offered by each entity to customers, and unique bin identifiers assigned to the storage bins. The CIMS executes a digital transfer of ownership of inventory from a stocked entity to a needful entity, for example, based on an inventory shortfall, a complete absence of inventory of the needful entity, orders for the product inventory being received, etc. Along with an inventory swap through the storage bins, the CIMS executes commerce between the entities and implements inventory reservation.

Abstract: In combination, a storage unit storable within a three-dimensional storage system and a storage/retrieval vehicle navigable through the three-dimensional storage system to storage locations therein at which the storage unit is selectively storable and retrievable. The storage/retrieval vehicle comprises a frame conveyable through the three-dimensional storage system, a platform atop the frame for receipt of the storage unit on the platform, and a loading/unloading mechanism operable to load and unload the storage unit to and from the platform at four different sides thereof. The storage unit and the storage/retrieval vehicle are configured to enable unloading of the storage unit from the platform in any one of four different directions at four different respective sides of the vehicle regardless of an original orientation in which the storage unit was previously loaded onto the platform and without reorienting the storage unit from the original orientation.

Abstract: A storage and retrieval system employing a gridded three-dimensional storage structure features workstations served by the same robotic vehicle fleet that serves the storage structure, travel-through workstations using the same robotic vehicles to carry storage units through the workstation without hand-off to any other conveyor or handler, internal sortation using orchestrated navigation of the robotic vehicles to workstation intake points, sensors on the robotic vehicles to confirm proper loading and alignment of storage units thereon, lifting mechanisms for raising the robotic vehicles into shafts of the gridded three-dimensional storage structure from a lower track thereof, use of markers and scanners to align the robotic vehicles with the grid shafts, and workstation light curtains for hand safety, pick-counting and container content protrusion detection.

Abstract: Bins or other storage units contained within a three-dimensional grid structure are arranged in cells, each of which has multiple storage units surrounding a central void or space on different sides thereof. This void space is slightly larger than each storage unit, enabling the unit to be pulled into the void by mechanical means, and allowing access to the bins on all sides of the void. The storage units are stacked within the three-dimensional grid structure, which can be built or expanded to a predetermined footprint. The aligned voids of stacked cells create vertical shafts spanning between upper and lower tracks of the grid structure on which robotic retrieval vehicles can horizontally travel to and from any given shaft. The robotic retrieval vehicles can directly access any storage unit via the vertical shafts.

Abstract: A storage system features a fleet of storage/retrieval vehicles and a gridded three-dimensional structure. The structure features a gridded two-dimensional track layout on which the one or more storage/retrieval vehicles are conveyable in two directions, and a plurality of storage columns residing above or below the gridded track layout in spaced distribution throughout the two-dimensional area of the track layout. Upright shafts reside above or below the gridded track layout and provide vehicle access to the storage columns. At least one working station resides outside the two-dimensional area of the track layout, and via one or more extension tracks, is served by the same vehicles that navigate the gridded structure.

Abstract: Orchestrated delivery of retrieved storage units from a three-dimensional gridded storage structure to an entrance or intake point of a working station in a sequenced manner is performed entirely within the footprint of the gridded three-dimensional storage structure by the same fleet of robotic storage/retrieval vehicles operable to retrieve the storage units from storage locations within that gridded structure, thereby enabling omission of large sortation conveyors or other external sortation equipment.

Abstract: In combination, a storage unit storable within a three-dimensional storage system and a storage/retrieval vehicle navigable through the three-dimensional storage system to storage locations therein at which the storage unit is selectively storable and retrievable. The storage/retrieval vehicle comprises a frame conveyable through the three-dimensional storage system, a platform atop the frame for receipt of the storage unit on the platform, and a loading/unloading mechanism operable to load and unload the storage unit to and from the platform at four different sides thereof. The storage unit and the storage/retrieval vehicle are configured to enable unloading of the storage unit from the platform in any one of four different directions at four different respective sides of the vehicle regardless of an original orientation in which the storage unit was previously loaded onto the platform and without reorienting the storage unit from the original orientation.

Abstract: Bins or other storage units contained within a three-dimensional grid structure are arranged in cells, each of which has multiple storage units surrounding a central void or space on different sides thereof. This void space is slightly larger than each storage unit, enabling the unit to be pulled into the void by mechanical means, and allowing access to the bins on all sides of the void. The storage units are stacked within the three-dimensional grid structure, which can be built or expanded to a predetermined footprint. The aligned voids of stacked cells create vertical shafts spanning between upper and lower tracks of the grid structure on which robotic retrieval vehicles can horizontally travel to and from any given shaft. The robotic retrieval vehicles can directly access any storage unit via the vertical shafts.

Abstract: Bins or other storage units contained within a three-dimensional grid structure are arranged in cells, each of which has multiple storage units surrounding a central void or space on different sides thereof. This void space is slightly larger than each storage unit, enabling the unit to be pulled into the void by mechanical means, and allowing access to the bins on all sides of the void. The storage units are stacked within the three-dimensional grid structure, which can be built or expanded to a predetermined footprint. The aligned voids of stacked cells create vertical shafts spanning between upper and lower tracks of the grid structure on which robotic retrieval vehicles can horizontally travel to and from any given shaft. The robotic retrieval vehicles can directly access any storage unit via the vertical shafts.

Abstract: Bins or other storage units contained within a three-dimensional grid structure are arranged in cells, each of which has multiple storage units surrounding a central void or space on different sides thereof. This void space is slightly larger than each storage unit, enabling the unit to be pulled into the void by mechanical means, and allowing access to the bins on all sides of the void. The storage units are stacked within the three-dimensional grid structure, which can be built or expanded to a predetermined footprint. The aligned voids of stacked cells create vertical shafts spanning between upper and lower tracks of the grid structure on which robotic retrieval vehicles can horizontally travel to and from any given shaft. The robotic retrieval vehicles can directly access any storage unit via the vertical shafts.