A labeling machine for producing respective multipacks, the multipacks comprising a group of products secured together by a label. The labeling machine includes a conveyor that comprises a conveyor module for forming a group of products from a plurality of individual products and for providing the group of products to a labeling process to produce a multipack of products. The labeling machine includes at least one labeler. The conveyor module comprises at least two conveying units which each conveying unit comprising at least one carrier. The movement of the conveying units may be individually controllable allowing two carriers on different conveying units to cooperate as a fixing unit. A method of producing respective multipacks, which each comprise a group of products, using the labeling machine is also provided.

A first leading end plate and a first rear end plate are provided at an upper part of a rotary table. When a conductor piece contacts the first leading end plate, a first contact detection sensor detects a contact of the conductor piece, and transmits a contact detection signal to a storage control unit. Upon receiving the contact detection signal, the storage control unit drives an air supply device for a predetermined period to spray air toward the conductor piece from a first air nozzle. The air spray brings the conductor piece into a tilted state with the rear end thereof moved downward. Even when the conductor piece contacts the first leading end plate and rebounds, the rear end thereof contacts an inner wall surface of the first rear end plate, thereby preventing the rear end of the conductor piece from getting over the first rear end plate.

In order to keep the overall length of an insertion feed unit small despite high variability, a vertical paternoster buffer is used as a buffer therein.

Some manufacturing processes include forming stacks of manufactured objects for handling and/or processing. While some such manufactured objects are consistent in thickness, other are more irregular. Some manufactured objects are generally flat, but are also generally thicker along one edge. When objects having these characteristics are stacked, the cumulative effect of such inconsistent thickness results in an unbalanced stack. The disclosed apparatus and method utilize a novel rotating stacker that rotates the stack of manufactured objects as each new object is added to the stack, thereby distributing the thickness inconsistency of individual objects throughout the stack, producing a more uniform stack without manual intervention.

For the construction of synthetic grass playing fields, a plurality of panels (1, 1′, 1″) are manufactured by injection molding and stacked in groups (50). Each stacked group (50) is placed on a distributor vehicle (90) moved along a covering direction (Z), so that the panels (1) which compose the group (50) are able to rotate relative to each other with respect to a main direction (X) orthogonal to the covering direction (Z), so that a row of panels is constructed.

The present invention is directed to a method of loading workpieces using a piler conveyor P including a first conveyor which sequentially conveys the workpieces by continuous operation at a first speed, a second conveyor which magnetically attracts, on a lower surface, the workpieces passed from the first conveyor for sequential conveyance by intermittent operation, and a loading frame where the workpieces are placed, the method including a first step S1 of gradually accelerating the second conveyor to the second speed, a second step S2 of operating the second conveyor at the second speed and passing the workpieces 1 from the first conveyor to the second conveyor, a third step S3 of gradually decelerating the second conveyor from the second speed for operation, and a fourth step S4 of stopping the second conveyor and causing the second conveyor to lose a magnetic force and dropping a workpiece 1 positioned above the loading frame onto the loading frame 30, wherein the first speed and the second speed are set at an equal constant speed.

Disclosed herein are systems and devices which transport and stack flexible textile workpieces (e.g., clothing) in a processing line. A proposed stacking device includes a conveyor belt wound through a series of rollers which permit horizontal extension of the conveyor path toward a downstream workstation. The extendable conveyor path allows for easy transferring and stacking of the workpieces at the downstream workstation.

A stacking system for aligning and stacking stamped sheet metal parts is provided. The stacking system includes a frame configured to coordinate a plurality of sub-systems including a parts catcher, receiving head including a plurality of alignment cylinders, and a set of elevating tables on a shuttle platform. Parts are received by the catcher from a conveyor belt and transported to a receiving head for alignment to a targeted position. After the formed part is aligned to the stack, the lift table is lowered such that space is available for another part to be aligned. After a predetermined number of formed parts has been stacked, a table shuttle will slide the lift table to an unloading position accessible by a fork truck.

A stacking system for aligning and stacking stamped sheet metal parts is provided. The stacking system includes a frame configured to coordinate a plurality of sub-systems including a parts catcher, receiving head including a plurality of alignment cylinders, and a set of elevating tables on a shuttle platform. Parts are received by the catcher from a conveyor belt and transported to a receiving head for alignment to a targeted position. After the formed part is aligned to the stack, the lift table is lowered such that space is available for another part to be aligned. After a predetermined number of formed parts has been stacked, a table shuttle will slide the lift table to an unloading position accessible by a fork truck.

The present invention relates to a transfer module (26) for a folder-gluer machine (1), the transfer module comprising a lower conveyor (36) and an upper conveyor (38) adapted to receive a folding box (2) therebetween and to transport the folding box in a direction of transportation (D) towards a downstream-located loading surface (90) in a stacker module. The upper conveyor (36) of the transfer module extends further in the direction of transportation than the lower conveyor (38) and the lower conveyor comprises a first conveyor belt (38a) and second conveyor belt (38b), each having an inlet end (67a, 67b) and an outlet end (65a, 65b), and wherein the outlet ends are displaceable in the direction of transportation.