A method for transferring conveyed items from at least one feed conveyor onto an outgoing conveyor, in a transfer region, wherein the at least one feed conveyor includes a conveying member that is driven along a feed conveying stretch, for conveying conveyed items into the transfer region, and the outgoing conveyor includes conveying containers that are movable along a transfer conveying stretch for taking over the conveyed items that are delivered by the at least one feed conveyor. The conveyed items that lie on the conveying member are accelerated relative to the conveying member along the feed conveying stretch towards the transfer region via an acceleration device and for the purpose of delivery of the conveyed items are brought into a cyclically synchronous side-by-side conveying with a conveying container of the outgoing conveyor.

A method for transferring conveyed items from at least one feed conveyor onto an outgoing conveyor, in a transfer region, wherein the at least one feed conveyor includes a conveying member that is driven along a feed conveying stretch, for conveying conveyed items into the transfer region, and the outgoing conveyor includes conveying containers that are movable along a transfer conveying stretch for taking over the conveyed items that are delivered by the at least one feed conveyor. The conveyed items that lie on the conveying member are accelerated relative to the conveying member along the feed conveying stretch towards the transfer region via an acceleration device and for the purpose of delivery of the conveyed items are brought into a cyclically synchronous side-by-side conveying with a conveying container of the outgoing conveyor.

A distribution system is disclosed for use with an induction system with an object processing system. The distribution system provides distribution of dissimilar objects into one of a plurality of receiving units. The distribution system includes an urging system for urging an object on a conveyor from the conveyor to a chute that includes at least one actuatable door for selectively dropping the object through the at least one actuable door, said chute leading to a first receiving station with a second receiving station being positioned below the at least one actuable door.

Driverless transport vehicles or DTVs, which are automatically guided vehicles, are gaining importance in the sorting of cargo. A method for loading a driverless transport vehicle with a cargo item in a transfer point, includes loading the DTV with the cargo item by using a known delivery system during the journey of the DTV. In order to prevent cargo items from falling during loading, a higher-level control sets the delivery speed of the cargo item and the speed of travel before the cargo item is transferred to the transport vehicle, such that the delivery speed component of the transport direction is equal to the speed of travel of the transport vehicle. In this way, the continued use of existing delivery systems such as are known under the term HSI (high speed induction) is possible. A system for loading a driverless transport vehicle is also provided.

A sorter comprising: a rack; a track assembly comprising two ring-shaped tracks both installed on the rack, the tracks being respectively arranged in two mutually parallel vertical planes and being aligned with each other; a drive assembly comprising at least one sprocket sets that comprise a driving sprocket and a plurality of driven sprockets installed on the rack; at least one chain hooping on the driving sprocket and the driven sprockets and having the same shape as the tracks; an electric machine configured to drive the driving sprocket to rotate; a sorting cart comprising a carriage that is arranged between and slidably connected to the two ring-shaped tracks and is further hinged with the chain; a conveying assembly disposed above the carriage and carry and convey items, wherein a conveying direction of the conveying assembly is different from a moving direction of the sorting cart.

A dual-layer linear sorter includes a delivery mechanism, a first feeding mechanism, a second uploading mechanism, a slewing mechanism, and a driving mechanism, the delivery mechanism is ring-shaped and includes upper and lower layers; the running direction of the upper layer is a first direction, the running direction of the lower layer is a second direction; the second direction is opposite to the first direction; the first feeding mechanism is close to the upper layer, and is docked with one end of the delivery mechanism; the second feeding mechanism is close to the lower layer and is docked with the other end of the delivery mechanism; the driving mechanism can drive the delivery mechanism to run; a part of the goods can be delivered to the upper layer via the first uploading mechanism; another part of goods can be delivered to the lower layer via the second uploading mechanism.

An article conveyance apparatus couples a plurality of conveyor carriages for conveying articles and enables the coupled conveyor carriages to travel along a conveyance path K. The conveyor carriage is coupled by a coupling part to another conveyor carriage placed in the longitudinal direction with respect to a traveling direction H of the conveyor carriage. The conveyor carriage includes a load cell that is provided in the coupling part and measures a force applied between the conveyor carriages, and a controller that calculates a force F applied to wheels of the conveyor carriage, based on a tension T between the conveyor carriages calculated according to the force applied between the conveyor carriages and measured by the load cell.

A method for categorizing packages (1) for loading a terminal station (3), in particular a shipping container, the method including: a) acquiring at least one item-specific information for each package (1) of a plurality of packages (1) in a sorter (2) for loading a terminal station (3); b) categorizing the packages (1) based on the respective object-specific information acquired, wherein at least one category from a plurality of categories is assigned for each of the packages (1); wherein, during the categorization, a weighting factor dependent on the object-specific information or on a further object-specific information of the respective package (1) is determined, wherein the object-specific information is subjected to the weighting factor so that a weighted object-specific information of the respective package (1) is obtained.

A device for sorting an item into containers on the side or sides of the device that includes several interconnected bogie assemblies movable in a direction, each bogie assembly includes a base, a right arm rotatable mounted on the base, a left arm rotatable mounted on the base, a right release that holds the right arm in a transport position, and a left release that holds the left arm in a transport position such that when both the right and left arms are in the transport position, the bogie assemblies move the item in the direction along the path and actuating the right release dumps the item into a right side container located on a right side of the device and actuating the left release dumps the item into a left side container located on a left side of the device.

The present invention relates to a parcel sorting system which is operated using two separate tracks so as to distinguish between concentrated population areas and other areas, and feed and sort only parcels destined for a corresponding area, whereby parcel sorting can be efficiently performed, and the system can be efficiently constructed while occupying a small area.