An article conveyance apparatus includes a carriage which travels along a predetermined travel path, and an on-ground facility including a pair of traveling rails which define the travel path. The carriage includes a first slider which operates according to magnetic action to drive a transfer mechanism, and a drive transmission mechanism which supports the first slider and transmits a driving force from the first slider to the transfer mechanism. The on-ground facility includes a first stator which applies magnetic action to the first slider in the carriage to operate the first slider. The first stator includes an opening through which the drive transmission mechanism of the carriage passes. The opening is disposed in a position such that the inside of the first stator is not seen from the opening in top view of the first stator.

A linear sorter sorts piece goods. The linear sorter contains a closed circulation of tracks having a plurality of cross-belt elements, in which the piece goods are transported on an upper run on the cross-belt elements and are sorted by unloading to corresponding destination points, and the cross-belt elements return on a lower run. The cross-belt elements are driven by linear motors. In order to simplify the maintenance and to have to keep fewer cross-belt elements available as replacement components, the linear motors for the cross-belt elements are controlled such that, as the cross-belt elements return on the lower run, the speed of the cross-belt elements is higher than the speed of the cross-belt elements while travelling on the upper run.

A linear sorter sorts piece goods. The linear sorter contains a closed circulation of tracks having a plurality of cross-belt elements, in which the piece goods are transported on an upper run on the cross-belt elements and are sorted by unloading to corresponding destination points, and the cross-belt elements return on a lower run. The cross-belt elements are driven by linear motors. In order to simplify the maintenance and to have to keep fewer cross-belt elements available as replacement components, the linear motors for the cross-belt elements are controlled such that, as the cross-belt elements return on the lower run, the speed of the cross-belt elements is higher than the speed of the cross-belt elements while travelling on the upper run.

An automated carrier system is disclosed for moving objects to be processed. The automated carrier system includes a base structure of a carrier on which an object may be supported, and at least two wheels mounted to at least two motors to provide at least two wheel assemblies, the at least two wheel assemblies being pivotally supported on the base structure for pivoting movement from a first position to a second position to effect a change in direction of movement of the carrier.

A high throughput sorting device is disclosed. The device includes a first sorter and a second sorter, each of the first and second sorters having a plurality of cells each configured to support, carry, and deposit an item. The device can also include at least one shared chute extending below a portion of the first sorter and a portion of the second sorter. The at least one chute can be configured to receive an item deposited by each of the plurality of cells and transport the item to an endpoint. The device can also include a base configured to support the at least one shared chute and the first and second sorters.

The invention relates to a transport container (4) for a sorting device (1), which can be moved along a conveying path (2), comprising a support frame (6), wherein at least one support tray (8, 10) is rotatably mounted on the support frame, in particular a first support tray (8) and a second support tray (10) following the first support tray (8) in the conveying direction (A) of the transport container (4), wherein the at least one support tray (8, 10) can be rotationally moved by a control device (12) between a substantially horizontal transport position (P1) for transporting a load (L) and a substantially vertical tilt position (P2) for depositing the load (L), wherein the control device (12) has a control lever (14, 16) connected to the support tray, in particular a first control lever (14) connected to the first support tray (8) and a second control lever (16) connected to the second support tray (10), wherein the control lever (14, 16), in particular the respective first control lever (14) and/or second control lever (16), is arranged in the transport position (P1) and/or the tilt position (P2) in a top dead centre position forming a locking position.

A sorting system, comprising: a conveying mechanism (1) and a control system (2). The conveying mechanism comprises: a rack (11); two rollers (15, 16) arranged on the rack at intervals along a first horizontal direction; a chain (12) wound around the two rollers; and a plurality of trolleys (13) respectively connected to the chain and sequentially arranged along the first horizontal direction. Each trolley comprises a trolley body (131) and a sorting and conveying mechanism (132) arranged on the trolley body, and the bottom of the trolley body is connected to the chain.

A sorting device and a method for sorting articles at delivery points are shown, the sorting device having a conveying device comprising transport platforms that are movable along a transport direction for transporting the articles and for delivering the articles to the delivery points, with the transport platforms having a bearing surface for the articles and with at least one transport platform having a first delivery device for vertically delivering the articles from the bearing surface to at least one first delivery point. To provide a sorting device for reliable and careful joint sorting of articles with different transport and delivery requirements, at least one transport platform has a second delivery device for laterally delivering the articles from the bearing surface to at least one second delivery point.

Systems and methods are disclosed for contactless powering and control of conveyors on shuttles. An example system may include a track, a first transmitter disposed at a first location along the track, the first transmitter configured to transmit power and data wirelessly, and a shuttle configured to move along the track. The shuttle may include a conveyor, and a first receiver configured to wirelessly receive the power and the data from the first transmitter, where the power is used to power the conveyor. The shuttle may not have an onboard power source coupled to the conveyor.

The invention relates to a conveyor device with at least one first and second conveyor carriage which are arranged one behind the other in the conveyor direction (F), a cross belt conveyor which is formed on at least the second conveyor carriage for conveying material to be conveyed in a cross conveyor direction (Q) oriented substantially transversely to the conveyor direction (F), and a powertrain brake for the cross belt conveyor. An operating device is arranged on the first conveyor carriage and a brake device is arranged on the second conveyor carriage. The brake device assumes the release state when the first and second conveyor carriage are traveling in a substantially straight manner, and the brake device assumes the brake state when at least one of the conveyor carriages is cornering in order to allow a movement of a cross belt of the cross belt conveyor in a cross conveyor direction (Q) when traveling in a straight manner and brake the movement when cornering.