Abstract: The invention relates to a mandrel, a sleeving device and a method for sleeving containers. The mandrel is suspended in the sleeving device. The mandrel opens a foil to form sleeves. The foil is fed around the tubular outer surface of the mandrel. According to the invention the outer surface of the mandrel is formed by at least two separate mandrel bodies. At least one of the mandrel body is biased outwardly to increase the circumference of the outer surface. This circumference is automatically adapted to the current, instantaneous circumference of the foil fed around the mandrel.

Abstract: The invention relates to a sleeving device, a set of a mandrel and collector and a method for arranging a sleeve around a product, such as a container, wherein static charges on the sleeve are reduced. Foil is fed over a mandrel, is cut into sleeves, and ejected over containers. According to the invention static charge is removed from the sleeve's inner surface by collecting static charge in a collector arranged on the mandrel. The collector includes electrical filaments positioned along an inner circumference of the sleeve. The charge is discharged afterwards, e.g. using a spark gap, via a discharger mounted on the frame and connected to the earth.

Abstract: The invention relates to a method, a sleeving device and a mandrel for arranging sleeves around products such as containers. Foil is opened on the mandrel and fed over the outer surface of the mandrel. The foil is cut to form individual sleeves of predetermined length. Sleeves are discharge in axial direction from the mandrel over the product. During discharge a rotational movement is imparted onto the sleeve. The sleeve is first fed a predetermined length beyond the cutting position before the sleeve is engaged for discharging.

Abstract: The invention relates to a method, a sleeving device and a mandrel for arranging sleeves around products such as containers. Foil is opened on the mandrel and fed over the outer surface of the mandrel. The foil is cut at a first position to form individual sleeves of predetermined length. Sleeves are discharged in axial direction from the mandrel over the product. The sleeves are discharged by engaging the sleeves at a second position. The circumference of the outer surface of the mandrel near the second position is smaller than the circumference of the outer surface of the mandrel upstream from the first position.