Thyssenkrupp Steel Europe Ag

Thyssen Krupp Ag

Thyssenkrupp Rasselstein Gmbh

Stephan Drewes

Lothar Patberg

Mark Hirt

Adrian Paton

Erik Hilfrich

Konstantinos Savvas

Michael Brüggenbrock

Andreas Cott

Ralf Stegmeyer

Ingo Rogner

Marcus Rauhut

Thomas Flaskamp

Markus Zörnack

Tobias Lewe

Johann Mueller

Bernd Schuhmacher

Karl Telger

Michael Gövert

Rainer Fechte-Heinen

Marco Tietz

Peter Seyfried

Karl-Heinz Kopplin

Roman Glass

Thomas Groβerüschkamp

Abdullah Kahveci

Maik Bogatsch

Patrick Tlauka

Thomas Großerüschkamp

Florian Herget

Hasan Bagci

Jens Liesner

Frank Schilling

Thomas Flöoth

Philipp Grunden

Winfried Höhn

Johann Müller

Markus ZÖRNACK

Michael GÖVERT

An electric motor with a beveled stator and/or rotor has at least one layer of a composite material. The composite material has at least one electrical steel strip layer as carrier and at least one polymer layer. The composite material can be used for reducing acoustic emission in beveled electric motors. A method of reducing acoustic emission in these electric motors is based on the use of the composite material.

Electric motor with slanted stator and/or rotor containing at least one layer of a composite material

A composite material, especially for use in a stator stack and/or rotor stack is disclosed. The composite material includes a first and a second electrical steel strip layer and a polymeric layer arranged in between, wherein the polymeric layer consists of a crosslinked acrylate-based copolymer of high molecular weight and has a layer thickness in the range from 3 to 20 &#x3bc;m.

Composite material for a stator stack and rotor stack

Bridge portion

A reflector for helio-thermal systems may include a metallic carrier plate and a reflective coating that is applied to the carrier plate and is constructed from at least one metallic reflective layer and at least one protective layer applied to the reflective layer. Such reflectors have high reflective capabilities, are robust in relation to mechanical stress, and can be manufactured cost effectively. Such reflectors are also lightweight and dimensionally stable due to the fact that the carrier plate may be formed from a sandwich plate having at least one nonmetallic intermediate layer disposed between an upper and lower metallic cover plate. The upper cover plate may have a smoothed surface to which the reflective layer can be applied. The smoothed surface prior to the reflective layer being applied may have an arithmetic mean surface parameter Ra of less than 0.03 &#x3bc;m. Methods for manufacturing such reflectors are also disclosed.

Reflectors for solar thermal systems and methods for producing same

Methods for producing connecting or junction elements, which in some cases may be utilized in steel structures of towers for wind turbines, may involve using a flow forming process to produce which a flange and a casing integrally adjoining the flange from a blank. Further, an end of the casing opposite the flange may be adapted to a contour of a component to which the casing is intended to be connected. In some examples, the casing may be formed with a second flange. Likewise, in some examples, at least a portion of the casing may have a conical design.

Connection element and method for producing same

A tower for a wind turbine may include an upper tower portion and a lower tower portion. The upper tower portion may include a tubular tower, and the lower tower portion may include a lattice tower. To improve ergonomics and work safety and make it possible to obtain a structural design with optimized forces, the lower tower portion may include a central tube positioned centrally within the lattice tower. Further, the central tube may have a smaller diameter, at least in certain portions, than at least part of the tubular tower of the upper tower portion. The tower may also include a transition piece between the upper tower portion and the lower tower portion. The transition piece may join the tubular tower of the upper tower portion and the central tube of the lower tower portion.

Tower for a wind turbine

A strut linkage for a steel construction may involve a tower of a wind turbine and/or a corner post of a lattice tower. In order that high forces can be removed via the strut linkage without causing increased stress concentrations, excessive use of material, and/or an excessive structural outlay, a plate element is provided for arranging between, preferably load-bearing, steel construction components. At least one connection element, which may be connected to the plate element, may be utilized to fasten at least one strut and/or guy of the steel construction to the steel construction components via the plate element.

Strut linkage for a steel construction, and steel construction having a strut linkage

Spring strut domes for use with vehicle bodies can be formed by reshaping a semifinished product into a dome element by way of massive forming. In particular, the semifinished product may be reshaped by rolling, forging, upset-forging, and/or pressing. In this process, structures may be introduced into the dome element that increase the stiffness of the dome element and hence the spring strut dome. Two example structures include ribs and webs, and the dome element may be formed of steel or a steel alloy. In some cases, the semifinished product may be heated before being reshaped into the dome element. Further, the spring strut dome may also include an attaching region coupled to the dome element, which may be used to secure the spring strut dome to a vehicle body. A wall thickness of the attaching region may be equal to or less than 1.5 mm in some examples.

Spring strut dome and method for producing same

A transition body may be disposed between upper and lower tower sections of a tower for a wind power station. Some example transition bodies may include a substantially annular upper connection flange for connection to the upper tower section, and at least three substantially annular lower connection flanges, each of which may connect to a corner leg of the lower tower section. The transition body may have several segments disposed about a central tower axis, with the number of segments corresponding to the number of corner legs. Upper peripheral sections of the segments may form an annular circumferential connection envelope that supports the upper connection flange. Lower sections of the segments may form annular circumferential segment envelopes that support the lower connection flanges. The segments may be disposed at acute angles and converge into one another at or near the upper connection flange.

Transition body between tower sections of a wind turbine and wind turbine tower comprising same

The invention relates to a tower of a wind power plant, having a lower part in the form of a lattice tower or truss tower with at least two corner bars, and an upper part in the form of a cross-sectionally substantially round tubular tower, wherein each particular corner bar is put together from a plurality of steel tube profiles that are connected together in the longitudinal direction. In order to achieve good transportability and easier assembly of the components of such a tower, the invention proposes a modular tower concept. According to the invention, each particular corner bar is in this case put together from at least three steel tube profiles which are provided with perforated flanges for holding screws, wherein the corner bars are connected together by cross struts and/or tension struts attached to the flanges, and wherein the steel tube profiles of each particular corner bar are spirally welded steel tube profiles.

Modular tower for a wind power plant

The invention relates to a spring strut top mounting, comprising at least one shaping base body, wherein the at least one shaping base body has a dome-shaped section in the region connecting to the spring strut and at least one separate, local reinforcement element which is connected to the base body. The object of making available a spring strut top mounting which has improved rigidity, in particular improved local rigidity, is achieved according to the invention in that the base body has at least one stamped region in the region connecting to the spring strut, and the at least one reinforcement element lays against the base body at least in the vicinity of the at least one stamped region.

Spring strut top mounting

The invention relates to a support device for a curved mirror having support elements and a curved mirror. The objective of providing a support device for a curved mirror which is constructed in a particularly simple manner and which enables particularly low production costs is achieved by a support device in that the support device has at least one bent metal carrier profile-member, the bent carrier profile-member having in the longitudinal direction an at least similar curvature to the curved mirror and being substantially mirror-symmetrical in the longitudinal direction.

Supporting device for a curved mirror

Growing community of inventors

Mönchengladbach, Germany

Stephan Drewes