Abstract: Power management system for a container-handling vehicle, with a rechargeable power source, for handling storage containers in an automated storage/retrieval system includes a charging station for recharging the rechargeable power source of the container-handling vehicle, a power supply for delivering power to the storage system, a power monitoring device coupled to the power supply, and a control system for controlling the operation of the automated storage/retrieval system. The power monitoring device monitors available power from the power source entering the automated storage/retrieval system and communicate a signal to the control system indicative of the available power.

Abstract: A system for power management of an automated storage and retrieval system includes a plurality container handling vehicles with at least one rechargeable power source for handling containers in a three dimensional underlying storage grid, a charging device for charging the at least one rechargeable power source, a power source for supplying power to the storage and retrieval system, and a monitoring system for monitoring energy prices. The monitoring system is configured to continuously update a power manager with energy prices. The power manager is configured to be updated with information regarding the level of charge of the rechargeable power sources and current resources in terms of the capacity and usage requirements of the container handling vehicles.

Abstract: The invention relates to an expansion joint (10) for connecting regions of a rail-based grid storage system (50, 50?, 50?; 104, 104?, 104?), the expansion joint (10) comprising: —a first rail element (12) and a second rail element (11), the rail elements (12, 11) being elongate and configured to slide relative to one another in a longitudinal direction in a junction area where they overlap, —the expansion joint (10) having a profiled upper surface that defines one or more tracks (27?, 27?) for supporting container handling vehicles (200, 300, 400), the tracks (27?, 27?) extending from the first rail element (12) through the junction area to the second rail element (11), wherein in the junction area, each rail element (11, 12) provides a portion of the or each track (27?, 27?) of the profiled upper surface so that there is a transition extending along the expansion joint (10) from the first rail element (12) to the second rail element (10) for the or each track (27?, 27?).

Abstract: An automated grid based storage and retrieval system includes a storage grid and a plurality of storage containers for storing product items therein. In the storage grid, the storage containers are stacked vertically in stacks arranged beneath openings of a grid-based rail system to provide storage columns of a storage volume. The storage volume includes a flow path extending through a plurality of the stacks. The flow path is formed by spacers positioned within the stacks. The spacers are configured to allow a fluid to flow through the spacer. Each spacer is stacked at a predetermined level between storage containers in a stack and adjacent another of the spacers in a neighboring stack to provide adjacent sections of the flow path.

Abstract: An automated storage and retrieval system includes remotely operated vehicles, a main grid in which the vehicles operates, a service grid for placement of vehicles for service, and a control system for controlling the vehicles. The control system includes a data record for the status of a vehicle state for each vehicle. Each remotely operated vehicle includes a label and the service grid includes a reader for reading the label so as to identify each vehicle passing the reader. The control system receives a signal from the reader and, upon receipt, compares the data record with an observed vehicle state of the identified vehicle and either updates the data record with the observed vehicle state or indicates to an operator that a difference exists between the observed vehicle state and the vehicle state on the control system.

Abstract: An illuminable storage grid is for storing and cultivating crops within containers. The illuminable storage grid includes a plurality of horizontally extending container supporting frameworks distributed vertically with vertical offsets. Each container supporting framework includes a container support for supporting a plurality of containers and a support displacement system for displacing the container support horizontally. Each container support is arranged above a lowermost container supporting framework display(s) at least one hole with an opening of at least a maximum horizontal cross section of the containers to be stored. At least one of the container supports above the lowermost container supporting framework is an illuminable container support enabling illumination.

Abstract: An automated storage and retrieval system includes a rail system with perpendicular tracks in X and Y direction. The storage and retrieval system includes a plurality of remotely operated container handling vehicles configured to move laterally on the rail system; and a main control system using a first communication system for communicating with the plurality of remotely operated container handling vehicles. The main control system monitors and controls the movement of the plurality of container handling vehicles via the first communication system. At least one service vehicle is movable on the rail system. The at least one service vehicle is configured to bring a malfunctioning remotely operated container handling vehicle to a service area outside of the rail system where the remotely operated container handling vehicles operate. The system further includes a secondary control system using a second communication system. The second communication system is independent of the main communication system.

Abstract: A container handling vehicle for picking up storage containers from a three-dimensional grid of a storage system, includes: a vehicle body having a first section and a second section arranged side-by-side; a first set of wheels for moving the container handling vehicle along a first direction on a rail system of the grid; and a second set of wheels for moving the container handling vehicle along the second direction on the rail system of the grid. The first section is configured to accommodate a storage container and has a footprint that is substantially equal to a cross-sectional area of one grid cell of the grid. The second section comprises an assembly of motors for driving at least one wheel of each of the sets of wheels and has a second footprint that is equal to or smaller than half of the first footprint.

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 remotely operated vehicle for an automated storage and retrieval system moves a product item between a storage container stored in an automated storage and retrieval grid configured to store a plurality of stacks of storage containers, and a further container. The remotely operated vehicle includes a vehicle body; a wheel arrangement connected to the vehicle body configured to move the remotely operated vehicle along a rail system of the automated storage and retrieval system; and a picking system for moving the product item between the storage container and the further container. The vehicle includes a container lifting device configured to carry the further container. The picking system includes a picking arm having a first end connected to the vehicle body and a second end. The picking system includes a holding mechanism for releasably holding of the product item. The holding mechanism is provided in the second end of the picking arm.

Abstract: An automated storage and retrieval system includes a framework structure constructed of a plurality of upright members connected by horizontal members to define a storage grid of storage columns, within which storage columns may be stacked a plurality of storage containers. The framework structure has a rail system arranged at the upper level of the framework structure, with parallel rails in a first direction and parallel rails in a second direction perpendicular to the first direction, upon which rails a plurality of wheeled container handling vehicles travel. The container handling vehicles are equipped with a gripping and lifting device for removing storage containers from the storage columns and replacing the storage containers in the storage columns. The upright members of the framework structure have corner sections directed towards an interior of a particular storage column. The corner sections include two vertically elongated, perpendicular corner guiding plates.

Abstract: A set of moulded panels, which can be assembled together to form a storage container for an automated storage and retrieval system, includes a rectangular base panel and four side panels. The base panel is moulded with a perimeter profile. Each of the side panels is moulded with a lower edge profile. The lower edge profiles of each side panel are slidingly engaged with the perimeter profile during assembly of the storage container. Each of the side panels are moulded with side edge profiles, which are to be slidingly engaged with the side edge profiles of adjacent side panels during assembly of the storage container.

Abstract: A method for handling malfunctioning vehicles on a rail system constituting part of a storage and retrieval system includes storing a plurality of stacks of storage containers and a control system. The storage and retrieval system includes a plurality of remotely operated vehicles configured to move laterally on the rail system. The method includes wirelessly monitoring and controlling, via the control system, movements of the plurality of vehicles.

Abstract: A remotely operated delivery vehicle for transport of a storage container between an automated storage and retrieval grid, which is configured to store a plurality of stacks of storage containers, and an access station for handling of the storage container by at least one of a robotic operator and human operator. The remotely operated delivery vehicle comprising; —a vehicle body comprising a motor for driving a plurality of rolling devices for moving the remotely operated delivery vehicle in a horizontal plane; —a control unit for controlling the remotely operated delivery vehicle; and —a container carrier (35) provided above the motorized vehicle body for carrying a storage container. The remotely operated delivery vehicle comprises a safety device which transmits a signal to the control unit such that it performs an action of operating the remotely operated delivery vehicle, in the event that a collision is detected.

Abstract: A station for providing access to contents in a storage container of an automated storage and retrieval system comprising:—an access barrier comprising an opening, and a plurality of covers, wherein each cover is arranged to be selectively deployed to close off a respective portion of the opening;—a loading mechanism arranged to receive the storage container and move it to the opening of the access barrier; and—a housing which is able to prevent access to the opening of the access barrier; wherein the station (10) is arranged to transition between;—a loading configuration in which access to the opening of the access barrier is prevented by the housing, and—an access configuration in which the opening of the access barrier is presented to thereby enable access to contents of the storage container through the opening.

Abstract: A storage system includes at least one vehicle, a horizontal rail grid, and a charging system for charging a rechargeable power source of the vehicle. The vehicle includes a first set of wheels and a second set of wheels for moving the vehicle upon the rail grid. The first set of wheels is displaceable in a vertical direction between a first position, a second position, and a third position. The first set of wheels may move the vehicle in a first direction. The first and the second set of wheels are in contact with the rail grid. The second set of wheels may move the vehicle in a second direction perpendicular to the first direction. The charging system includes at least two charge-receiving elements arranged on the vehicle and connected to the power source, and a charging station including two charge-providing elements connected to a charging power source.

Abstract: An automated storage and retrieval system includes a plurality of storage container handling vehicles. Each vehicle includes a vehicle body, a thereto connected wheel assembly configured to guide the vehicle along the track system, a container picking device for releasably attaching to a storage container, which include one or more arms. The configuration of the container picking device is such that it is movable between a first lifting position enabling the container picking device to lift at least one storage container from a position beyond a horizontal extent of the vehicle body and a second transport position enabling the container picking device to hold the at least one storage container at least partly within the horizontal extent of the vehicle body and above the vehicle body.

Abstract: A container handling vehicle includes a lower part and an upper part. The lower part includes a width and a length that form a vehicle footprint of the container handling vehicle; and a storage space configured to accommodate a storage container. The lower part includes a first set of wheels oriented in a first vertical plane and a second set of wheels oriented in a second vertical plane orthogonal to the first vertical plane. The lower part includes a first set of vertical side walls that are co-planar to the first vertical plane, and a second set of vertical side walls that are co-planar to the second vertical plane. The first set of wheels, the second set of wheels, the first set of vertical side walls, and the second set of vertical side walls are arranged such that the lower part of the container handling vehicle has a cuboid shape. The upper part is disposed vertically above the lower part, and includes a protruding section and a recessed section.

Abstract: A measuring system for monitoring atmospheric conditions in an automated storage and retrieval system including a framework structure. The framework structure forms a three-dimensional storage grid structure for storing storage containers for storing items. The grid structure forms vertical storage columns each having a horizontal area defined by the size of an access opening of the vertical storage columns. A rail system is arranged on the framework structure defining the circumference of each access opening on top of each storage column. The rail system provides available routes for container handling vehicles handling and transferring the storage containers to and from the storage columns. The at least one container handling vehicle has at least one rechargeable power source. A container handling platform has a first set of grippers for handling the storage containers. The measuring system includes at least one box-shaped measuring unit of the same size and features as a storage container.

Abstract: A method for controlling movement of a robot on a plurality of tracks laid out on a frame structure forming a grid includes detecting a current speed and an angular position for one wheel in a pair of wheels of the robot; tracking a current position of the robot relative to at least a portion of the frame structure; and setting a driving sequence for the pair of wheels, based on a position information of the robot.