Provided is a production line for treatments of container products having an upstream conveyor loaded with products into a multi-lane flow, moving the products along a stream direction through successive treatment workstations with one comprising a multi-lane treatment module along the upstream conveyor, a distribution surface located at an end of the upstream conveyor feeding the distribution surface with a multi-lane flow of products, a downstream conveyor located at an output of the distribution surface, transversally moving the products along a single-lane flow, a transfer means longitudinally transferring relative a row of the products from the distribution surface to the transversal downstream conveyor, wherein the distribution surface is orientated longitudinally along the stream direction and is aligned with the upstream conveyor. Also provided is a conveying device, a production method, and use of a distribution surface for converting a multi-lane flow of products into at a single-lane flow of products.

A sorter for sorting out discrete products includes an arrangement of adjacent sorting fingers. The sorting fingers, depending on pivoted positions, open a sorting gap in a conveying path for bad products to be sorted out or else close the sorting gap in order to support the further conveying of good products.

A system and method for independently routing vehicles and delivering containers and closures to unit operation stations are disclosed. The containers and closures can, in some cases, be transported on the same vehicle. In other cases, the containers and closures can be transported on different vehicles.

A method and system (100) for controlling transport of products (1). The products (1) are guided by at least one conveyor surface (10) through a control zone (15). A flow profile (Fm) of the products (1) in the control zone (15) is measured. The measured flow profile (Fm) is compared to one or more predetermined flow patterns (P1,P2,P3) for controlling the transport based on the comparison. Preferably, the flow profile (Fm) is measured by a sensor device (20) disposed adjacent the transported products, e.g. using LIDAR.

A grouping station includes first conveyor tracks for moving loading pallets to the grouping station and second conveyor tracks for forwarding the loading pallets from the grouping station. The first conveyor tracks and the second conveyor tracks are both arranged for two different handling directions of the loading pallets.

A storage station, a process for storing, and a bottle tray (5) configured for receiving a bottle layer (7) are provided. The bottle tray has an upright side wall (12), with an upper tray opening (13) and a tray bottom (15) connected to the side wall (12). The bottle tray (5) has a movable lifting bottom (18) that lies in the loaded state (5) on the tray bottom (15) and which has a plurality of passage openings (16) for a lifting device (34) for a relative lift between the side wall (12) and the lifting bottom (18). The tray bottom (15) has a perforated plate or a plurality of struts (17) located spaced apart and enclosing the passage openings (16). The struts are fastened to the side wall (12). The bottle tray (5) has a bottom centering (19) acting between the tray bottom (15) and the lifting bottom (18).

A row-forming device (10) together with processes form a bottle row (8) from a bottle layer (7). The row-forming device (10) is configured to pick up and transport away, in rows, the respectively frontmost layer row (61) of the bottle layer (7) moved in a conveying direction (60), in a transverse transport direction (72). One or more layer conveyors (59) moves the bottle row (7) in a conveying direction (60) and adjoins the transport device (62), which has a plurality of parallel conveyor belts (63, 66) that extend in the transport direction (72) and are driven independently and also exhibit mutually different transport speeds. The transport device (62) has a guide strip (68) oriented obliquely to the transport direction (72). The guide strip (68) extends over a part of the conveyor belts (63, 66) and is arranged downstream of the layer conveyor (59) in the transport direction (72).

Item singulation systems and methods may include an input conveyor, a vision system, and an output conveyor that receives items from the input conveyor. The vision system may determine individual columns of items from among a plurality of items on the input conveyor. Operations of the input conveyor and output conveyor may be controlled substantially as a pull system to transfer individual columns of items to the output conveyor, such that singulated items can be transferred by the output conveyor to downstream processes.

An apparatus and method for manufacturing glass containers handles the containers individually after a hot forming process and annealing to prevent glass-to-glass contact. By handling the containers individually and preventing glass-to-glass contact damage to the containers in the form of checks and scratches is avoided. To prevent contact of the containers and damage arising from the contact, the equipment including conveyors, pushers, starwheels, shuttles, and transfer heads that move the glass containers through the apparatus maintains the glass containers in uniform spaced relationship at each stage of container processing until the containers are packaged.

A singulating system within a conveyor system for the purpose of singulating and orienting jumbled, randomly oriented packages into packages that are conveyed in a single file line wherein each package is oriented such that the long axis of each package is oriented along the direction of flow of the conveyor system that consists of a plurality of conveyor sets that together rotate, reorient, space, and align packages, as well as a method of singulating packages.