Broetje-Automation Gmbh

Deutsches Zentrum Fur Luft-Und Raumfahrt E.v.

Maschinenbau Scholz Gmbh & Co. Kg

Mag Ias Gmbh

Matthias Meyer

Christian Boge

Markus Kleineberg

Axel Peters

Bernhard Pause

Philipp Lohse

Philippe Moebel

Eugen Bekarew

Tobias Vester

Burkhard Binder

Michael Fink

Sebastian Haupt

Dirk Röstermundt

Armin Baeurle

Martin Graeber

Hakan Ucan

Nico Liebers

Armin BÄURLE

Jens Bölke

Michael Kühn

Heiko Assing

A fiber laying machine for producing laid fiber scrims has a tool table for positioning a mold, said tool table being linearly displaceable in an x direction by means of an x carriage and being pivotable about a vertical pivot axis. Arranged above the tool table is a fiber laying head which is linearly displaceable transversely to the x direction by means of a y carriage. Since the fiber laying head is linearly displaceable, the arrangement of the tool table on the machine frame is comparatively easy, and so laid fiber scrims are producible quickly and efficiently. In particular, automatic loading and unloading of the tool table is easily possible.

Fibre-laying machine and method for producing laid fibre scrims

An end effector for laying down fibers on a laying mold, the end effector having at least one bobbin arrangement of a system type, the system type being defined by virtue of the fact that the bobbin arrangement has a first bobbin for providing a first fiber strand and a second bobbin for providing a second fiber strand, the rotational axes of the first and the second bobbin being arranged at an angle with respect to one another, the first fiber strand and the second fiber strand being merged over a deflection unit and being guided from a corner region of the end effector jointly into a center region of the end effector and further to a pressure roller.

End effector

Various embodiments relate to a system for the production of fiber composite components, having at least a first fiber placement machine for the application of fiber layers to a workpiece, and a further processing station, distinct from the fiber placement machine, for the modification of the workpiece, wherein the workpiece can be brought both to the fiber placement machine and to the further processing station by means of an automated conveyor means. Various additional embodiments are also disclosed herein.

System for the production of fiber composite components

Various embodiments relate to a fiber-laying machine for producing laid fiber scrims, including a tool table for feeding a workpiece along a feed direction; a laying head for applying fibers onto the workpiece; and a fiber-providing unit for feeding several fiber strands to the laying head; the several fiber strands are combined on the laying head to form a fiber web which is to be applied onto the workpiece; the laying head is movable in a laying direction relative to the fiber-providing unit; a clamping device is arranged on the laying head for releasably clamping the fiber strands, a portion of the fiber web is laid on the workpiece once the fiber strands have been pulled forward by a laying stroke by means of the laying head such that while the fibers are being applied on the workpiece, no fibers are pulled out of the fiber-providing unit.

Fiber-laying machine

To produce a fiber composite material component, a production system has a mold providing unit with at least one component mold. Fiber composite material can be applied to the at least one component mold by means of at least two production units. The at least two production units can be moved for this purpose on a guide path. The guide path runs round the mold providing unit so that the at least two production units can travel round the mold providing unit along the guide path. The productivity and flexibility of production can thereby be increased.

Production system for producing fibre composite material components

An autoclave for pressure and temperature treatment of objects includes a pressure container having a pressure resistant wall which encloses a pressure chamber for receiving the objects to be treated, the pressure chamber having a free inner diameter of at least 1.5 m; and a heat source for heating the objects received in the pressure chamber, the heat source including a plurality of microwave sources irradiating microwave radiation, which are arranged outside the pressure container. The microwave sources are distributed over the pressure resistant wall at an areal density of at least 4 microwave sources per square meter surface area of the pressure resistant wall; and the microwave radiation irradiated by the microwave sources is coupled through the pressure resistant wall into the pressure chamber.

Microwave autoclave

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Weil am Rhein, Germany

Matthias Meyer