A conveyance control device executes: a control step of detecting entering to a merging point adjacent area set on adjacent to each merging point on the conveyance route; a detection step of detecting whether there is an obstacle around the carrying cart; a communication step of performing, when the entering to each merging point adjacent area is detected, local wireless communications with another carrying cart by using a common frequency band and a common identification code set to values different among merging points; and a merging point passing control step of starting the communication step when the other carrying cart is detected in the merging point adjacent area in the detection step, and causing passing of a merging point in accordance with a priority set to each entering passage to the merging point, after a handshake with the other carrying cart is successfully performed in the communication step.

Puck handling device for a conveyor system, comprising a puck handling disc and a drive means for rotating the puck handling disc, where the puck handling disc comprises a first semi-circular disc comprising a first cut-out and a second semi-circular disc comprising a second cut-out, where the first semi-circular disc and the second semi-circular disc are individually rotatable by the drive means, and where the first cut-out and the second cut-out forms a recess adapted to hold a puck when the puck handling disc is arranged in a first holding state. The advantage of the invention is that a puck handling device adapted to direct a puck from any of two infeed conveyors to any of two outfeed conveyors is provided. This allows for a flexible and quick handling of pucks.

A conveying system is disclosed. The conveying system may have a first conveying apparatus that conveys a first article to a first location. The conveying system may also have a second conveying apparatus that conveys a second article to a second location. The conveying system may have a frame, a chute connected to the frame, and a third conveying apparatus. The chute may convey the first article received from the first conveying apparatus to a discharge location. The third conveying apparatus, disposed below the chute, may convey the second article received from the second conveying apparatus to the discharge location. The chute may be movable relative to the to the third conveying apparatus, such that the first or second article may be selectively conveyed to the discharge location via the chute or third conveying apparatus, depending on the position of the chute relative to the third conveying apparatus.

A parcel processing system (400) includes infeed conveyors (404, 406, 408) each conveying parcels (106) with an assigned orientation class, a merging conveyor (410) configured to merge parcels fed by the infeed conveyors into a single stream of parcels, and an induction conveyor (200) configured to feed the merged stream of parcels along an induction feed path (202) to a sorting conveyor (100). The infeed paths (404a, 406a) of the infeed conveyors are arranged at different angular orientations in relation to a merging feed path (412) of the merging conveyor such that each parcel in the merged stream of parcels has an orientation that is dependent upon its assigned orientation class. The merging conveyor (410) includes a multi-axis transport mechanism configured to move parcels along a principal axis parallel to the merging feed path and a secondary axis perpendicular to the principal axis, the merging conveyor being operable to selectively activate movement along the secondary axis for centering parcels being loaded thereon.

Device for controlling a flow of cardboard tubular cores (1) adapted to produce logs of paper material and intended to be stored in a collection point (2) placed downstream of the same device, including more conveyors (5; 7) each of which is adapted for carrying the said tubular cores (1) up to the entry point (6D) of a respective guide channel (6) having an entry point (6D) and an exit point (6F), interception devices (8) adapted for intercepting the tubular cores (1), the interception devices being arranged and acting on each of the channels (6) to adjust the flow of the tubular cores through the respective exit points (6F), and programmable device (UE) adapted for activating and deactivating the interception device (8). The interception devices (8) are adapted to selectively form two nips (N1, N2) inside the guide channel (6), the nips (N1, N2) being selectively formed at a predetermined distance from each other.

A method combines conveyor streams on a conveying technology element having a number of ingoing conveyor segments at least one coupling to an outgoing conveyor segment on which the ingoing conveyor segments are brought together, and a number of holding devices for holding a conveyor flow on the ingoing conveyor segments. In addition, a number of release devices disposed downstream of the ingoing conveyor segments logically connected to an OR-connection are provided for releasing a holding device or a conveyed object. A holding device or a conveyed object waiting at the holding device is then respectively released when a conveyed object preceding the waiting conveyed object in a sorting order passes one of the connected release devices or when there is no preceding conveyed object. A conveying technology element carries out the method.

A typing tunnel off-loading and sorting system includes an off-loading conveyor, cameras and photoelectric eye. The overhead cameras detect the item size and whether it is cubic in nature and type and size of its footprint. An in-line slide sorter having alternating conveyor rollers and pop-up belts pass through to, or divert articles from, a downstream conveyor. The vision based system may also be used to detect space between articles and insert articles in the unoccupied space.

Disclosed is a conveying device including an upstream conveying unit for receiving products from at least one upstream station, an accumulation surface along which the upstream conveying unit circulates, a loading unit for moving the products from the upstream conveying unit to the accumulation surface, a downstream conveying unit for clearing the products, and an unloading unit for moving the products from the accumulation surface to the downstream conveying unit. The downstream conveying unit includes a plurality of independent moving unit receiving the products in receiving zones which are successively distributed from the edge of the accumulation surface opposite the edge along which the upstream conveying unit extends. Also disclosed is a corresponding method.

The invention relates to a method for bundling conveyed streams on a material handling element (Ka . . . Kz, K1 . . . K34) comprising a number of incoming conveyor segments (1a, 1b), at least one coupling (2) to an outgoing conveyor segment (3), on which the incoming conveyor segments (1a, 1b) converge, and a number of holding devices (4a, 4b) for holding a conveyed stream on the incoming conveyor segments (1a, 1b). In a first step the conveyed objects (17) are vectorially combined in in ascending/descending order according to a desired sorting sequence. When a conveyed object (17) passes the material handling element (Ka . . . Kz, K1 . . . K34) a vector corresponding to the actual sequence is entered in the vector combination. Conveyed objects (17) are released if a ring with a constant direction is avoided in the vector combination. The invention further relates to a material handling element (Ka . . . Kz, K1 . . . K34) for carrying out said method.

An article sortation system and method of sorting articles includes an article sorter having an article support surface moving in a longitudinal direction and a plurality of discharge conveyors extending from the article support surface. The sorter is adapted to discharge articles from the article support surface to said discharge conveyors. One or more of the discharge conveyors includes an active aligner having a driven surface that is adapted to reorient at least some of the diverted articles.