A method of protecting the end fittings of a tube or hose includes the steps of providing an end fitting that is attached to a hose or tube. Providing a heat shrinkable plastic capsule having a tubular portion with an open end and a closed end. Placing the plastic capsule over the end fitting until the closed end of the capsule is in contact with end of the fitting. Placing a magnet at the outer face of the capsule to maintain the end of the capsule in contact with the end of the fitting and heat shrinking the capsule onto the fitting. Removing the magnet from the end of the capsuled fitting.

Composite film (1) for closing a container (10) by sealing the composite film (1) against a circumferential sealing surface (11) of the container (10) or of a cap ring (12) to be connected to the container (10). The composite film (1) comprises an outer support layer (30) made of a metal film and an inner multilayer membrane (20) laminated to the outer support layer (30) using a bonding layer (28). The membrane (20) has a consecutive layer structure from the outside to the inside consisting of a backbone layer (21) made of polypropylene, an intermediate layer (23) made of a partially crystalline polyamide and a cohesively breakable peeling layer (25) made of polypropylene, polyethylene and talc, wherein between the intermediate layer (23) and the backbone layer (21) as well as between the intermediate layer (23) and the peeling layer (25) there is arranged a tie layer (22, 24) made of a maleic acid anhydride grafted polypropylene. The membrane has further an innermost sealing layer (26) made of a random copolymer comprising monomers of propylene, ethylene and butylene, wherein the random copolymer is grafted with maleic acid anhydride. The softening point of the sealing layer (26) lies at least between 15 and 25° C. lower than that of the tie layers (22, 24). A use and a method of producing said composite film (1) are also disclosed.

Composite film (1) for closing a container (10) by sealing the composite film (1) against a circumferential sealing surface (11) of the container (10) or of a cap ring (12) to be connected to the container (10). The composite film (1) comprises an outer support layer (30) made of a metal film and an inner multilayer membrane (20) laminated to the outer support layer (30) using a bonding layer (28). The membrane (20) has a consecutive layer structure from the outside to the inside consisting of a backbone layer (21) made of polypropylene, an intermediate layer (23) made of a partially crystalline polyamide and a cohesively breakable peeling layer (25) made of polypropylene, polyethylene and talc, wherein between the intermediate layer (23) and the backbone layer (21) as well as between the intermediate layer (23) and the peeling layer (25) there is arranged a tie layer (22, 24) made of a maleic acid anhydride grafted polypropylene. The membrane has further an innermost sealing layer (26) made of a random copolymer comprising monomers of propylene, ethylene and butylene, wherein the random copolymer is grafted with maleic acid anhydride. The softening point of the sealing layer (26) lies at least between 15 and 25° C. lower than that of the tie layers (22, 24). A use and a method of producing said composite film (1) are also disclosed.

The present disclosure relates to a method of attaching a shrinkable label (22) on a product (23) wherein the shrinkable label comprises a multi-layered film (1, 10) comprising a heat shrinkable material and a photothermic material (3, 4, 14), the method comprising: —transporting the at least one product on a conveyor (65); —arranging the at least one product in an irradiation volume, the irradiation volume being defined by a plurality of LED UV light emitters (63) arranged to emit UV-light in the direction of at least a shrinkable label arranged around the at least one product; —controlling the UV-light emitters to irradiate the at least one shrinkable label arranged around the one or more products in the irradiation volume in order for the photothermic material to heat up causing the heat shrinkable material to shrink around the at least one product.

The present disclosure relates to a method of attaching a shrinkable label (22) on a product (23) wherein the shrinkable label comprises a multi-layered film (1, 10) comprising a heat shrinkable material and a photothermic material (3, 4, 14), the method comprising: —transporting the at least one product on a conveyor (65); —arranging the at least one product in an irradiation volume, the irradiation volume being defined by a plurality of LED UV light emitters (63) arranged to emit UV-light in the direction of at least a shrinkable label arranged around the at least one product; —controlling the UV-light emitters to irradiate the at least one shrinkable label arranged around the one or more products in the irradiation volume in order for the photothermic material to heat up causing the heat shrinkable material to shrink around the at least one product.

A fulfillment system is provided and includes a perishable drug filling system and a non-perishable drug filling system. A shipping station is provided for delivering the coolers and the boxes to at least one delivery service. A conveyor is configured to move the boxes and the coolers from the drug filling systems to the shipping station. A decision station is located along the conveyor and is configured to determine if a container on the conveyor is a cooler or a box. The conveyor is configured to direct the coolers to a shrink wrap station and to direct the boxes to the shipping station while bypassing the shrink wrap station. The shrink wrap station is configured to apply a wrapper around the cooler and apply heat to the wrapper to shrink the wrapper around the cooler with the wrapper having a transparent section over a label on the cooler.

A fulfillment system is provided and includes a perishable drug filling system and a non-perishable drug filling system. A shipping station is provided for delivering the coolers and the boxes to at least one delivery service. A conveyor is configured to move the boxes and the coolers from the drug filling systems to the shipping station. A decision station is located along the conveyor and is configured to determine if a container on the conveyor is a cooler or a box. The conveyor is configured to direct the coolers to a shrink wrap station and to direct the boxes to the shipping station while bypassing the shrink wrap station. The shrink wrap station is configured to apply a wrapper around the cooler and apply heat to the wrapper to shrink the wrapper around the cooler with the wrapper having a transparent section over a label on the cooler.

In the present invention, an insertion object (300) and backing-equipped shrink film packaging (200) are lined up in series along the insertion direction. An introduction guide body (120) comprises: a head part (121) having an outer diameter smaller than the inner diameter of the a shrink film (220); and an air-blowing port (122) that blows air from the inside thereof toward the outer surface thereof. There are an insertion preparation means in which the introduction guide body (120) is gradually introduced into the shrink film (220) of the backing-equipped shrink film packaging (200) by the sliding movement of a slider device (130), and the shrink film (220) is inflated by air, and an insertion means in which the insertion object (300) is gradually inserted into the inflated shrink film (220), and the insertion object (300) is pulled or pushed to a prescribed position by the insertion means.

A shrink wrapping apparatus, and associated process, includes a housing (turbine) having a wall forming a passage dimensioned to receive the associated container assembly and associated sleeve. The passage has an inlet and an outlet spaced therefrom. A steam/hot air path communicates with the passage to provide steam from an associated steam source to at least a portion of the passage in order to shrink wrap the associated sleeve on the associated container assembly as the container assembly and sleeve move through the passage. The apparatus also includes a stop member for engaging the associated container assembly and holding in the passage for a predetermined amount of time.

A shrink wrapping apparatus, and associated process, includes a housing (turbine) having a wall forming a passage dimensioned to receive the associated container assembly and associated sleeve. The passage has an inlet and an outlet spaced therefrom. A steam/hot air path communicates with the passage to provide steam from an associated steam source to at least a portion of the passage in order to shrink wrap the associated sleeve on the associated container assembly as the container assembly and sleeve move through the passage. The apparatus also includes a stop member for engaging the associated container assembly and holding in the passage for a predetermined amount of time.