A conveyor system includes a rail having one or more channels therein and one or more sleds operatively associated with the rail. A sled can include a body and one or more wheels mounted on the body and configured to move through the one or more channels in the rail. A sled can also include a holding device connected to the body. The holding device can be configured to engage a packaging container to move the packaging container along the rail. Multiple sleds can be used to secure a packaging container therebetween and move the packaging container along the rail. The conveyor system may also include a queue system that dynamically moves packaging containers to packaging stations.

A transfer robot comprises a movable chassis, a door frame vertically arranged on the movable chassis, and a temporary storage mechanism and a cargo box conveying mechanism which are arranged on the door frame, wherein the temporary storage mechanism is provided with a plurality of temporary storage spaces used for temporarily storing cargo boxes, and the cargo box conveying mechanism can stretch horizontally and lift vertically relative to the door frame so as to convey the cargo boxes between the temporary storage space and a temporary inventory container.

A pallet building apparatus for automatically building a pallet load of pallet load article units onto a pallet support including a frame defining a pallet building base, at least one articulated robot to transport and place the pallet load article units, a controller to control articulated robot motion and effect therewith a pallet load build, at least one three-dimensional, time of flight, camera to generate three-dimensional imaging of the pallet support and pallet load build, wherein the controller registers, from the three-dimensional camera, real time three-dimensional imaging data embodying different corresponding three-dimensional images of the pallet support and pallet load build, to determine, in real time, from the corresponding real time three-dimensional imaging data, a pallet support variance or article unit variance and generate in real time an articulated robot motion signal, the articulated robot motion signal being generated real time so as to be performed real time by the at least one articulated robot between placement of at least one pallet load article unit and a serially consecutive pallet load article unit enabling substantially continuous building of the pallet load build.

An automated system for singulating items is provided. The automated system includes a singulation apparatus. The singulation apparatus includes multiple conveyor modules and a vertical frame structure. Each of the multiple conveyor modules has an identical physical structure. The vertical frame structure provides multiple horizontal mounting locations, each at a different height along the vertical frame structure. Each of the conveyor modules is mounted to a different one of the multiple horizontal mounting locations.

A process of manipulating a closable carton with lid panels extending from walls of the carton and tabs received in slots formed in the lid panels to secure the lid panels to close the carton. The process has a step of moving a folding element transverse to each wall from which a lid extends to move the one or more lids into a position which closes the carton. The process has a step of lifting the closed carton past a non-return support and into engagement with another carton to provide a stack of closed cartons supported by the non-return support. The process has a step of the support then releasing a stack of closed cartons to a conveyor.

The problem of potentially damaging a pallet layer that is gripped by clamps of a depalletizing tool is solved i) by detecting the real position of the layer using a pad on the tool that is movable with the clamps towards the pallet layer and whose detected stopping position determines the real position of the layer, and ii) while the layer is gripped by the clamp, by inserting under the layer curtains; the pressure on the layer by the clamps being adapted to the ease to go underneath the layer.

A selectably configurable modular labware transport system including a labware bulk overhead transport system module forming an overhead transport path. The labware bulk overhead transport system module has a labware support, with at least a movable part of the labware support being configured to support labware thereon, and move longitudinally defining the overhead transport path. The labware support has more than one labware holding stations for holding a labware piece, each of the labware holding stations having a different location along the labware support and overhead transport path. The labware bulk overhead transport system module is communicably couplable to another labware bulk overhead transport system module that forms another different overhead transport path, and effects undisrupted transport of the labware throughout the overhead transport path with the labware bulk overhead transport system module both coupled to and uncoupled from the other labware bulk overhead transport system module.

A packing box folding system, and the packing box folding system including a transfer conveyor on which transfers the packing box from a packing box introducing position to a folded packing box discharging position; a fixed guide panel which extends between the packing box introducing position and the packing box discharging position and is disposed on one side of the transfer conveyor in the width-direction; and a movable suction device which is disposed on the side opposite to the fixed guide panel in the width-direction of the transfer conveyor and is movable between the packing box introducing position and the packing box discharging position, wherein the movable suction device suctions the side surface of the packing box, which faces the side surface in contact with the fixed guide panel, and presses the suctioned side surface inward in the width-direction.

A system for grouping and rotating packages (101) includes a first conveyor (102) configured to drive a stream of packages from a first end (102A) to a second end (102B) at a predefined first speed, an actuation section (104) situated at the second end (102B) of the first conveyor (102) configured to receive the stream of packages from the first conveyor (102) and actuate the stream of packages to an orienting section (108) at a predefined second speed, wherein the second speed is less than the first speed, and a plurality of lugs (106) adjacent to the actuation section (104) configured to actuate forward packages in the stream of packages forming groups (105) of two or more packages (101).

A method for loading a container with packages, using a device having at least one guide. At least one hand element is displaceable in the longitudinal direction of the guide, and is provided on the at least one guide. The hand element has a plurality of finger elements. The finger elements have at least two flexible flank elements extending together from one end of the finger element to the opposing end. The at least two flexible flank elements of the finger elements are flexibly connected together via a plurality of webs. The finger elements may be adjusted from at least one curved position into at least one extended position and back. The at least one hand element takes packages one after the other, and deposits the packages into the container in a stack. The hand element is displaced along the guide between the deposit of two successive packages.