Abstract: An automated storage and retrieval system includes a track system including a first set of parallel tracks arranged in a horizontal plane and extending in a first direction, and a second set of parallel tracks arranged in the horizontal plane and extending in a second direction which is orthogonal to the first direction, which first and second sets of tracks form a grid pattern in the horizontal plane comprising a plurality of adjacent grid cells, each grid cell including a grid opening defined by a pair of neighboring tracks of the first set of tracks and a pair of neighboring tracks of the second set of tracks; a plurality of storage columns each column being arranged to store a respective stack of storage containers; and a plurality of container handling vehicles for lifting and moving storage containers stacked in the stacks. The storage columns are located beneath the track system. Each storage column is located vertically below a grid opening.

Abstract: The invention concerns a service vehicle (2) for extinguishing fire on and within an automated storage and retrieval system (1) and a method for operating such a service vehicle (2). The service vehicle comprises caterpillar tracks (6, 7) allowing movement of the service vehicle across a rail system (108) and a fire extinguisher compartment (8) for containing firefighting equipment (3a).

Abstract: A floor element for an automated storage and retrieval system, which comprises a three-dimensional grid, a plurality of container handling vehicles, and multiple floor elements, each floor element arrangeable at a top end of a storage column on top of a vertical stack of containers, includes an upper surface with a substantially rectangular horizontal periphery suitable for being accommodated in a storage column. The floor element further includes lifting frame connecting elements, for releasable connection to a lifting frame, on a peripheral top section of the upper surface and a cut-out at each corner of the substantially rectangular horizontal periphery for interaction with guiding pins arranged on the lifting frame, and rail-connecting elements at the substantially rectangular horizontal periphery.

Abstract: A system performs measurements in storage containers for storing items. The storage containers are stored in an automated storage system including a framework structure forming a three-dimensional storage grid structure for storing the storage containers. 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 system further includes a testing station, accessible to a container handling vehicle via the rail system, with measuring equipment for measuring atmospheric conditions and for performing measurements in said storage container. The testing station is configured to communicate measurement data to a computer system.

Abstract: An automated storage and retrieval system includes: a storage grid having storage columns arranged in rows, in which storage containers are stacked one on top of another; a rail system having a first set of parallel rails arranged in a horizontal plane and extending in a first direction, and a second set of parallel rails arranged in the horizontal plane and extending in a second direction orthogonal to the first direction, which first and second sets of rails form a grid pattern in the horizontal plane having a plurality of adjacent grid cells; at least one container handling vehicle configured to move on the rail system, including a wheel arrangement configured to guide the at least one storage container vehicle along the rail system in at least one of the first direction and the second direction; and a service vehicle for movement on the rail system.

Abstract: A vehicle tilting device for tilting a delivery vehicle for increasing access to items from a storage container transported on the delivery vehicle includes a base structure and a tiltable platform connected to the base structure. The tiltable platform includes guiding features adapted to guide the delivery vehicle onto the tiltable platform, and a tilting actuator arranged for lifting the tiltable platform at a second platform side which is opposite to a first platform side, such that the tiltable platform is tilted towards the first platform side.

Abstract: An automated vertical farming system includes a framework structure forming a grid storage arrangement. One or more module handling vehicles are arranged to travel and transport modules along a rail system. A control system is configured to control the travel and operation of the one or more module handling vehicles. Stackable growth modules are arranged to support growing plants, the growth modules having a footprint corresponding to that of a column of the framework structure, such that the growth modules may be arranged in stacks in the columns. The growth modules allow plants to grow horizontally, and also provide a non-drip watering system for watering the plants.

Abstract: A watering system for a vertical farming facility has a stackable growth module having a load bearing frame to allow the growth module to be arranged in a self-supporting stack of other modules in a vertical farming facility. The growth module supports a vertically arranged growth board for supporting plants grown in the vertical farming facility where the plants grow in a horizontal direction out from the growth board. The growth board has: a porous growth medium; a watering trough extending along an upper edge of the growth board which is provided with holes for distributing water into the growth medium; a water collection trough extending along a lower edge of the growth board arranged to collect water exiting the growth medium; and a valve provided in the water collection trough arranged to permit water to flow out of the water collection trough when the valve is open and to prevent water from flowing out of the collection trough when the valve is closed.

Abstract: A watering system for a vertical farming facility, having a stackable growth module having a load bearing frame to allow the growth module to be arranged in a self-supporting stack of other modules in a vertical farming facility. The growth module supports a vertically arranged growth board for supporting plants grown in the vertical farming facility where the plants grow in a horizontal direction out from the growth board. The growth board has: a porous growth medium; a watering trough extending along an upper edge of the growth board which is provided with holes for distributing water into the growth medium; a water collection trough extending along a lower edge of the growth board arranged to collect water exiting the growth medium; and a valve provided in the water collection trough arranged to permit water to flow out of the water collection trough when the valve is open and to prevent water from flowing out of the collection trough when the valve is closed.

Abstract: A stackable module having a functional component, where the stackable module has a load-bearing frame including a first support member and a second support member held in a spaced apart and parallel configuration by a cross-member, the cross-member forming a part of the functional component. The load-bearing frame is configured to enable the stackable module to occupy a cuboidal volume within which the functional component is supported, and wherein the load-bearing frame comprises upper and lower load-transferring edge surfaces. The functional component may be a functional component of a vertical farming system.

Abstract: An automated vertical farming system, includes a framework structure forming a grid storage arrangement. One or more module handling vehicles are arranged to travel and transport modules along a rail system. A control system is configured to control the travel and operation of the one or more module handling vehicles. Stackable growth modules and stackable lighting modules are arranged to support growing plants, the growth modules having a footprint corresponding to that of a column of the framework structure, such that the growth modules may be arranged in stacks in the columns. The growth modules allow plants to grow horizontally, and also provide a non-drip watering system for watering the plants and water tank modules for watering the columns of growth modules.

Abstract: An automated vertical farming system, includes a framework structure forming a grid storage arrangement. One or more module handling vehicles are arranged to travel and transport modules along a rail system. A control system is configured to control the travel and operation of the one or more module handling vehicles. Stackable growth modules are arranged to support growing plants, the growth modules having a footprint corresponding to that of a column of the framework structure, such that the growth modules may be arranged in stacks in the columns. The growth modules allow plants to grow horizontally, and also provide a non-drip watering system for watering the plants.

Abstract: A stackable lighting module has a load-bearing frame including a first support member and a second support member held in a spaced apart and parallel configuration by a cross-member, to which cross-member is attached a light source module. The light source module has electrical connectors along upper and lower edges, such that when stacked, the vertically adjacent light source modules will snap into electrical connection.

Abstract: A stackable module has a functional component. The stackable module has a load-bearing frame including a first support member and a second support member held in a spaced apart and parallel configuration by a cross-member. The cross-member forms a part of the functional component. The load-bearing frame is configured to enable the stackable module to occupy a cuboidal volume within which the functional component is supported, and wherein the load-bearing frame includes upper and lower load-transferring edge surfaces. The functional component may be a growth board for supporting plants in a vertical farming system, the growth board having a drain.

Abstract: An automated storage and retrieval system includes a first track system and a second track system. The first track system includes a first set of parallel tracks arranged in a first horizontal plane and extending in a first direction of the first track system and a second set of parallel tracks arranged in the first horizontal plane and extending in a second direction of the first track system which is orthogonal to the first direction of the first track system. The first and second sets of tracks of the first track system forming a grid pattern in the first horizontal plane including a plurality of adjacent grid cells. Each grid cell of the first track system comprising a grid opening defined by a pair of neighboring tracks of the first set of tracks and a pair of neighboring tracks of the second set of tracks. Storage columns are located beneath the first track system for storing storage containers in a plurality of stacks. Each storage column is located vertically below a grid opening.

Abstract: A storage container stores produce in an automated storage and retrieval system. The storage container includes a base panel; four side panels extending from the base; and a top panel provided above the four side panels. The base panel, the four side panels, and the top panel define a storage compartment. The storage container includes an adjustable ventilation opening provided in the base panel, the top panel, or one of the four side panels.

Abstract: A container accessing station is configured to offer multiple access points where access to each access point may be permitted through an upper working surface of the container accessing station to an underlying container that has been delivered to the access point. The container accessing station includes one or more working surface sections, access panels and blanking-off panels. Each working surface section has a common attachment configuration to allow either the access panel or the blanking-off panel to be fitted as part of the container accessing station at any of the multiple access points.

Abstract: A disinfection station for disinfection of a storage container in an automated storage and retrieval system includes a frame and a disinfection system. The frame includes a support, by which the storage container is supported in a disinfection position during disinfection, and an opening through which the storage container is transported between a storage position in the automated storage and retrieval system and the disinfection position. The disinfection system is for disinfecting the storage container in the disinfection position. The disinfection system includes a disinfection fluid applicator, a disinfection fluid container, and a pump controlled to pump the disinfection fluid from the container to the applicator. The opening is a top opening. The storage container is lowered through the top opening to the support before disinfection. The disinfection station includes a splash cover for protecting the surroundings from disinfection fluid.

Abstract: An automated grid-based storage and retrieval system includes a framework structure, a plurality of storage containers, a container handling vehicle, and a control system. The framework structure includes upright members and a rail system including a grid of horizontal rails provided at upper ends of the upright members. The framework structure defines a storage volume comprising storage columns arranged adjacent one another below the horizontal rails, the grid defining a plurality of grid positions. The plurality of storage containers are stacked on top of one another in the storage columns to form a plurality of stacks in the storage columns. The container handling vehicle includes a lifting device which can be lowered from the container handling vehicle for picking up a storage container.

Abstract: An automated storage and retrieval system includes a rail system comprising a first set of parallel rails arranged to guide movement of a container handling vehicle in a first direction across the top of a framework structure, and a second set of parallel rails arranged perpendicular to the first set of rails to guide movement of the container handling vehicle in a second direction. The second direction is perpendicular to the first direction. The first and second sets of parallel rails divide the rail system into a plurality of grid cells. The framework structure includes upright members and horizontal members. At least one container handling vehicle is configured to operate on the rail system. The at least one container handling vehicle is provided with at least one orientation sensor configured to measure at least one orientation parameter of the sensor in a three-dimensional cartesian reference system.