Abstract:
The present invention relates to a method of manufacturing a laminated packaging material comprising a first, outermost layer of a transparent polymer, to be directed towards the outside of a package made from the laminated packaging material, a substrate layer, and a second, outermost layer of a thermo-sealable polymer, arranged on the other side of the substrate layer opposite to the first outermost layer, and optionally one or more further material layers between the substrate layer and the second, outermost polymer layer, the laminated packaging material exhibiting a visual or tactile pattern, or a combination thereof, in the first outermost transparent polymer layer. The invention also relates to a laminated packaging material produced by the method and to a packaging container for liquid or semi-liquid food, produced from the laminated packaging material.
Abstract:
A building board is finished in a first processing station via laterally operating processing means, where-in a first edge strip is glued along a first edge side of body element of the building board. In a second processing station a primary surface layer is glued, by vertically operating processing means, to cover the entire primary main side and the primary side of the first edge stripe. Thereafter, a vertical pressure is applied over the body element and the first edge stripe across a working direction while the body element and the first edge stripe pass the second processing station in such a manner that a primary side of the first edge stripe is brought in level with a primary main side of the body element when passing the second processing station.
Abstract:
1. A composite tape (T) comprising a first web (W1) and a second web (W2) welded together according to a welding pattern comprising a plurality of welding points (40) arranged in arrays (42', 42") extending along a first direction (MD) and spaced apart in a second direction (CD), perpendicular to said first direction (MD), with adjacent arrays (42', 42") offset from each other in said first direction (MD), and with said welding points (40) in each array (42', 42") arranged in groups spaced apart in said first direction (MD), wherein the first web (W1) has a plurality of hollow protrusions (44) alternating with welding points (40), both in said first direction (MD) and in said second direction (CD), and wherein the second web (W2) has a plurality of ribs (46) extending along said first direction (MD) and separated from each other by said arrays (42', 42") of welding points (40).
Abstract:
According to the present invention there is provided a method of bonding Nd-Fe-B permanent magnets together. The method includes the steps of: a) degreasing and activating adhesion surfaces of the Nd-Fe-B permanent magnets; b) coating an insulating adhesive on the adhesion surfaces of the Nd-Fe-B permanent magnets such that a thickness of an adhesive layer is 1 to 100µm; c) initial curing the insulating adhesive at a temperature T1 of 20°C to 250°C for 0.1 h to 24h; d) stacking the Nd-Fe-B permanent magnets together in a fixing tool (4) and curing the insulating adhesive under pressure of 0.1MPa to 10 MPa and a temperature T2 of 150°C to 350°C for 0.1h to 12h; and e) stop heating and allow to cool down the bonded Nd-Fe-B permanent magnets to room temperature.
Abstract:
A process for the formation of an assembly comprising a structured or compacted porous film comprising a) application of a porous film (2b) onto an elastic substrate (1b) in a stretched state such that a reversible adhesion of the film on the stretched substrate occurs, and b) relaxing the substrate (1b) with the applied film thereon to obtain a structured or compacted porous film (2a), c) applying a support material to a part of the structured or compacted film so that the structured or compacted film to which no support material is attached is releasable.
Abstract:
An article having an inner article layer and an outer article layer to be worn by a mammal comprising a thermally insulating layer of a reflective metalized polymeric insulation material having moisture vapour transference properties adjacent to at least one of the inner and outer article layers. An apparatus and method for producing a reflective metalized polymeric thermally insulating assembly having moisture vapour transference properties suitable for use in the article is also provided. The insulation material provides enhanced thermal retention.
Abstract:
Die Erfindung betrifft ein Laminiergerät mit einer in einem Gehäuse aufgenommenen Laminiervorrichtung (10) zur Laminierung von Laminiergut (12) aus Blattgut und Kunststofffolie zu einem Laminat, wobei die Laminiervorrichtung (10) ein oder mehrere durch einen Gleichstrommotor rotatorisch angetriebene Rollenpaare (16, 22) zum Vorschub des Laminierguts (12) mit einer Vorschubgeschwindigkeit in einer Vorschubrichtung (14) zwischen den beiden Rollen (18, 24) jedes Rollenpaars (16, 22) hindurch aufweist, und wobei die Rollen (18) mindestens eines Rollenpaars (16) zum Verbinden des Blattguts mit der Kunststofffolie beheizbar sind. Erfindungsgemäß ist eine Steuereinrichtung vorgesehen mit einer Messeinheit zur Messung eines den Betriebszustand der Laminiervorrichtung (10) charakterisierenden Messwerts und zur Steuerung der Vorschubgeschwindigkeit des Laminierguts (12) in Abhängigkeit vom gemessenen Messwert, wobei der Messwert entweder der den Gleichstrommotor antreibende elektrische Antriebsstrom (34) oder die Drehzahl (32) des Gleichstrommotors oder der Rollen (18, 24) ist.
Abstract:
A device (100) for the placement of material (121) on a surface (117) includes a housing (104), a motor (110) coupled to the housing (104), and a driving component (106) coupled to the housing (104) and powered by the motor (110). The device (100) further includes at least one guide chute (111, 112) defining a guide channel (160, 164) with the driving component (106). The device (100) further includes a layup roller (114) coupled to the housing (104) adjacent the guide channel (160, 164). The layup roller (114) includes a roller surface (166) and the guide channel (160, 164) is configured to discharge a quantity of material (121) to the roller surface (166). The layup roller (114) is configured to deposit the material (121) onto the surface (117).