Abstract: A storage system (1) comprises a plurality of vertical stacks (2) of storage containers (3), wherein the stacks (2) are arranged in a horizontal first direction (X) and a horizontal second direction (Y) which is perpendicular to the first direction (X), a transport unit (8) for transporting at least one container (3) to or from a selected stack (2) in the first and/or second direction (X, Y), and a container handling device (9, 10) for transferring at least an upper container (3) from a selected stack (2) to the transport unit (8) before the transport unit (8) including the container (3) is transported from the selected stack (2) and for transferring at least a container (3) from the transport unit (8) to the top of a selected stack (2) after the transport unit (8) including the container (3) is transported to the selected stack (2). The transport unit (8) is movable above the stacks (2).

Abstract: Systems and methods for material handling vehicle task classification are provided. A method for task characterization on a material handling vehicle comprises monitoring data communicated between one or more on-board sensors and a vehicle controller on the material handling vehicle. The method further comprises identifying a repletion or pattern in the monitored data, and determining that the repetition or pattern in the monitored data is a vehicle task. The method also comprises modifying an operational parameter of the material handling vehicle based on the determined vehicle task.

Abstract: The present invention relates to a racking bay tower construction method, the racking bay including upright members with shelf-frames installed therebetween, the construction method including use of a method of moving an item, the item being a preassembled shelf-frame, between adjacent upright members of a racking bay tower, the shelf-frame moving method including: mounting a first preassembled shelf-frame onto a jig table such that the shelf-frame is in an angular orientation; and lifting the first shelf-frame from the jig table, the jig table being positioned between lower ends of adjacent upright members, to an installation position between upper ends of the adjacent upright members, while maintaining the angular position of the first shelf-frame, and then installing the first shelf-frame in a desired orientation in its installation position; and then mounting a second preassembled shelf-frame onto a jig table such that the second shelf-frame is in an angular orientation; and lifting the second shelf-frame

Abstract: A robotic service device is described for use on a robotic picking system grid. The robotic service device is capable of driving to any location on the grid order to perform maintenance operations or cleaning. Additionally, the service device may be used to rescue robotic load handling devices operational in the picking system. The robotic service device may include a releasable docking mechanism to enable it to dock and latch on to malfunctioning load handling devices. The service device may also be provided with cleaning capability and a camera to enable the condition of the grid and other robotic devices to be monitored.

Abstract: An embodiment is a processing system for processing a substrate. The processing system includes a Front Opening Unified Pod (FOUP) load lock (FLL) and a vacuum system. The FLL has walls defining an interior space therein. The FLL includes load lock isolation and tunnel isolation doors. The load lock isolation door is operable to close a first opening in a first sidewall of the FLL. The first opening is sized so that a FOUP is capable of passing therethrough. The tunnel isolation door is operable to close a second opening in a second sidewall of the FLL. The second opening is sized so that a substrate is capable of passing therethrough. The vacuum system is fluidly connected to the interior space of the FLL and is operable to pump down a pressure of the interior space of the FLL.

Abstract: A container handling vehicle for picking up storage containers from a three-dimensional grid of an underlying storage system includes: a first set of wheels arranged at opposite portions of a vehicle body of the container handling vehicle, for moving the vehicle along a first direction on a rail system of the grid; and a second set of wheels arranged at opposite portions of the vehicle body, for moving the vehicle along a second direction on the rail system of the grid, the second direction being perpendicular to the first direction. The vehicle body includes walls on all sides forming a footprint defined by horizontal peripheries in the X and Y directions of the vehicle body.

Abstract: A cradle and guide system for a refuse vehicle has at least one track member mounted on a bumper of a refuse vehicle. The at least one track member is able to deflect horizontally to compensate for misalignment. At least one guide member is mounted to a front loading fork of the refuse vehicle. The at least one guide member contacts the at least one track member to limit horizontal movement of the front loading fork with respect to the refuse vehicle during misalignment. The at least one track member returns to its original position to align the front loading forks.

Abstract: An assembly material logistics system and methods includes a marketplace component storage area and an assembly area each including an aligned rack aisle for the selected positioning of predetermined full containers and empty containers depleted of components. A plurality of transfer vehicles movable along a material aisle positioned directly adjacent to the rack aisle reciprocally move between the component storage and assembly areas to retrieve and deposit full and empty component storage containers to support assembly of at least one product in the assembly area. In one example, the component storage area includes a large component storage area, small component storage area and a consumable materials storage area. In an alternate example, the transfer vehicles include a first support and a second support to simultaneously support and transfer both a full component container and an empty component container leading to greater efficiency of material logistics.

Abstract: A material delivery and waste removal trailer that includes a scissors lift mechanism mounted on a main frame of the trailer that elevates a storage bin from the main frame and retracts the storage bin to the main frame. The storage bin has a frame mounted on the scissors lift and a container mounted to the frame of the storage bin. The container of the storage bin is movable pivotally vertically away the frame of the storage bin and linearly horizontally through the frame of the storage bin. A first hydraulic cylinder controls movement of the scissors lift mechanism away from the main frame and toward the main frame and a second hydraulic cylinder controls movement of the container of the storage bin away from the frame of the storage bin and toward and the frame of the storage bin.

Abstract: A piled grain surface management robot comprises an auger-based drive system, a memory, and a processor coupled with the memory. The processor is configured to control movement of the robot via the auger-based drive system. The processor is also configured to direct a traversal of a surface of piled grain in a bulk store, wherein a crust layer of the surface is broken up by auger rotation of the auger-based drive system during the traversal.

Abstract: A storage system and a load handling device for lifting and moving containers stacked in the storage system are described. The storage system includes a plurality of rails or tracks arranged in a grid pattern above the stacks of containers. The grid pattern can include a plurality of grid spaces and each stack is located within a footprint of only a single grid space. The load handling device is configured to move laterally on the rails or tracks above the stacks. The load-handling device includes a container-receiving space located above the rails or tracks in use and a lifting device arranged to lift a container from a stack into the container-receiving space. The load handling device has a footprint that, in use, occupies only a single grid space in the storage system.

Abstract: An offloading vacuum system. The system has a tank to capture debris from an excavation site. The debris is pulled into the tank due to a blower pulling air into an attached hose. An internal conveyor within the tank conveys material to an offloading hub. The offloading hub has a ground-facing door which opens to deposit debris into an external conveyor. The external conveyor, when deployed, can move debris from below the tank to a dump container with a wall greater than a height of the tank.

Abstract: A storage system and a load handling device for lifting and moving containers stacked in the storage system are described. The storage system includes a plurality of rails or tracks arranged in a grid pattern above the stacks of containers. The grid pattern can include a plurality of grid spaces and each stack is located within a footprint of only a single grid space. The load handling device is configured to move laterally on the rails or tracks above the stacks. The load-handling device includes a container-receiving space located above the rails or tracks in use and a lifting device arranged to lift a container from a stack into the container-receiving space. The load handling device has a footprint that, in use, occupies only a single grid space in the storage system.

Abstract: A material handling vehicle. The material handling vehicle including a vehicle body, an operator compartment, and a mast. The mast has a mounting platform, a first support member coupled to the mounting platform, a second support member coupled to the mounting platform, and a detection system coupled to the mast. The mast is coupled to the vehicle body at a frontward location relative to the operator compartment. The position of the mast on the vehicle body prevents the mast from impeding a field of view of an operator positioned in the operator compartment.

Abstract: Aspects of unbinding apparatus, methods, and systems are disclosed. One aspect disclosed herein is an apparatus for unbinding a stacked load of logs. For example, the apparatus may comprise: a plurality of support arms movable toward a plurality of side surfaces of the stacked load, each support arm of the plurality of support arms comprising a guide surface and being: adjustable to abut against one or more side surfaces of the plurality of side surfaces; and independently movable relative to the plurality of support arms in one or more directions responsive to a physical shape of the one or more side surfaces to establish a formfitting abutment between the plurality of support arms and the plurality of side surfaces. In this example, once the formfitting abutment is established, the guide surfaces of the plurality of support arms may be positioned and operative to guide a log released from the stacked load along an escape path over and away from an unbinding area adjacent the stacked load.

Abstract: An order fulfillment and delivery system for autonomously fulfilling orders while en route to a delivery location. The system includes a delivery vehicle having a storage area, a robotic system at least partially disposed within the storage area and one or more processors. The one or more processors being configured to receive an order of one or more inventory items, generate container retrieval instructions for the robotic system to perform based on the received order and transmit to the robotic system the container retrieval instructions to perform. The robot system includes a container retrieval device movable in at least two dimensions to engage and move a container, based upon the container retrieval instructions, from a first location within the delivery vehicle to a second location within the delivery vehicle.

Abstract: A workstation for a material handling system is provided. The system may include a plurality of vehicles for retrieving items from a plurality of storage locations located in one or more racks. The workstation is configured to accommodate the vehicles so that the vehicles drive into the workstation and drive upwardly along a track in the workstation. In one configuration, the track is configured to tilt the vehicle at a predetermined angle relative to the horizon as the vehicle is driven upwardly. After the vehicle is tilted to the predetermined angle the vehicle continues to drive upwardly while maintaining the predetermined angle.

Abstract: The present invention relates to the technical field of vertical automatic storage cabinets and provides a vertical automatic storage cabinet that comprises: a cabinet body; a storage rack provided on an inner wall of the cabinet body; a storage box, detachably provided on the storage rack; a manipulator assembly provided in the transportation space and being configured to grasp the storage box. In this vertical automatic storage cabinet, storage racks are arranged on both sides in the cabinet body, and the manipulator assembly is located in the area between the two storage racks, the storage boxes on both sides can be taken out of the cabinet body by the manipulator assembly in the middle.

Abstract: A method and associated apparatus are provided for retrieving an object from a multi-depth object storage. The method includes retrieving, via a shuttle, at least a first object from a first depth of a storage location and a second object from a second depth of the storage location. The first depth is less than the second depth, such that the first object positioned at the first depth interferes with retrieval of the second object positioned at the second depth. The method also includes manipulating the first object and the second object, such that the first object is positioned to be disposed into the storage location while the second object remains disposed on the shuttle. The method further includes disposing the first object into the storage location while the second object remains on the shuttle. A corresponding apparatus is also provided.

Abstract: An automated storage and retrieval system includes an automated storage and retrieval grid, a container accessing station, a delivery rail system, and a delivery vehicle operating on the delivery rail system.