Abstract: A flashing assembly for use between two roof windows mounted in an inclined roof structure, a group of roof windows mounted using such a flashing assembly, and a method for mounting such a flashing assembly between two roof windows. The flashing assembly comprises a first and second flashing element each comprising a first section extending along a width axis, where the first section of the second flashing element comprises a plurality of parallel indications to guide a removal of part of the first section, and the first section of the first flashing element comprises a pocket for receiving the first section of the second flashing element. The pocket is delimited by two legs, where the more narrow of the two legs has a width which exceeds a distance between the parallel indications.

Abstract: A flashing assembly for use between two roof windows mounted in an inclined roof structure, a group of roof windows mounted using such a flashing assembly, and a method for mounting such a flashing assembly between two roof windows. The flashing assembly comprises a first and second flashing element each comprising a first section extending along a width axis, where the first section of the second flashing element comprises a plurality of parallel indications to guide a removal of part of the first section, and the first section of the first flashing element comprises a pocket for receiving the first section of the second flashing element. The pocket is delimited by two legs, where the more narrow of the two legs has a width which exceeds a distance between the parallel indications.

Abstract: A flashing assembly for use between two roof windows mounted in an inclined roof structure, a group of roof windows mounted using such a flashing assembly, and a method for mounting a flashing assembly between two roof windows. In the flashing assembly (1), the first section (71) of the first flashing element (7) comprises two legs (711, 712) extending along the width axis and being located at a distance from each other measured along the height axis thereby forming a pocket (713) between them. The first section (81) of the second flashing element (8) fits into the pocket of the first flashing element.

Abstract: A method that combines injection molding and extrusion is disclosed. First, a molten material is injected into a mold via an injection gate, the mold comprising a first portion and a second portion. Next, additional molten material is injected via the injection gate and pushed through an extrusion die located in the first portion of the mold and the second portion is separated from the first portion. In embodiments, the second portion is separated from the first portion before the additional material is injected. In other embodiments, the second portion is separated from the first portion simultaneously with the additional material being injected. The method may be used to produce longer and thinner parts with detailed features, such as catheters.

Abstract: A method that combines injection molding and extrusion is disclosed. First, a molten material is injected into a mold via an injection gate, the mold comprising a first portion and a second portion. Next, additional molten material is injected via the injection gate and pushed through an extrusion die located in the first portion of the mold and the second portion is separated from the first portion. In embodiments, the second portion is separated from the first portion before the additional material is injected. In other embodiments, the second portion is separated from the first portion simultaneously with the additional material being injected. The method may be used to produce longer and thinner parts with detailed features, such as catheters.

Abstract: A method for stopping a pitch controlled wind turbine comprising a rotor with at least one blade (11), a mechanical brake (31) on the high speed shaft, a pitch system ((21, 23, 25) for adjusting the blade pitch angle, that includes: a) a first stage using the pitch system (21, 23, 25) for slowing down the rotor; b) a second stage using both the pitch system (21, 23, 25) and the mechanical brake (31) for stopping the rotor. The second stage begins when one of the following conditions takes place: the high speed shaft rotational speed is under a predefined value So; a predefined time delay To with respect to the beginning of the first stage is reached; a predefined high speed shaft torque level TLo is reached.