Siemens Aktiengesellschaft

Converteam Gmbh

Bonus Energy A/s

Stiesdal Storage A/s

Stiesdal Offshore A/s

Stiesdal Offshore Technologies A/s

Siemens Gamesa Renewable Energy A/s

Ge Energy Power Conversion Technology Gmbh

Converteam Technology Ltd.

Rwe Renewables Gmbh

Converteam UK Ltd.

Siemens Akteingesellschaft

Bonus Enegy A/s

Stiesdal Hydrogen A/s

Andresen Towers A/s

Henrik Stiesdal

Rodney Jones

Per Egedal

Paul Brian Brogan

Erik Grøndahl

Erik Groendahl

Claus Burchardt

Jean Le Besnerais

Jacob Blach Nielsen

Till Andreas Barmeier

Peder Bay Enevoldsen

Karsten Schibsbye

Thorkil Munk-Hansen

Uffe Eriksen

Allan Hurup

Thomas Bosselmann

Jesper Moeller

Thomas Hammer

Vladimir Danov

Jörg Dorn

Peter Menke

Erik Wolf

Soeren Gundtoft

Volker Seidel

Daniel Reznik

Daniel Bartminn

Kaj Skov Nielsen

Dominik Ergin

Henning Poulsen

Robert Vernon Fulcher

Andreas Ziroff

Erik Grove-Nielsen

Giovanni Airoldi

Hans-Joachim Knaak

James Kenneth Booth

Hans Laurberg

Jan Thisted

Ralf Sigling

Peter Hessellund Soerensen

Christian Laursen

Martin Winther-Jensen

Michael Nørlem

Bendt Olesen

Peter Loevenskjold Falkenberg

Karl Aage Maj

Brian Rasmussen

Soeren Oemann Lind

Jens Jørgen Østergaard Kristensen

Rune Rubak

Jesper Elliot Petersen

Bo Birkemose

Jimmi Andersen

Theodoros Papadopoulos

Poul Skjaerbaek

Martin Johan Smith Jensen

Roland Schuster

Peter Rasmussen

Arne Kryger

Kurt Andersen

Ole Kjaer

Silvio Semmer

Thomas Oestergaard

Soeren Vinther

Dirk Koschnitzke

Victor Ustinov

Mads Peter Zippor Leth Andersen

Adriana Cristina Urda

Kaj Johansen

Jens Jørgen Ø Kristensen

Erik Grondahl

Claus Nybroe

Uffe Lykke Eriksen

Arne Hedevang

Jens Arne Mikkelsen

Jens Markussen

Jens Jørgen ØStergaard Kristensen

Anders Nygaard Rasmussen

Mark Brown

Troels Hinrichsen

Anders Boegelund

Michael Danielsen

Michael Norlem

Brendt Olesen

Two adjacent pipe flanges are secured by a plurality of clamp units, where each clamp unit, in order to receive the adjacent flanges in its receptacle, is thermally expanded.

Method of connecting tubular members in offshore structures

A first and a second tubular member are welded to opposite sides of a stiffening ring in order to obtain a double-segment. Further segments can be added to form a tubular multi-segment with stiffening rings in between adjacent tubular members. The resulting multi-segment is used as a tubular buoyancy module in a floating offshore structure.

Method of assembling a tubular floating structure and its use

An electrolysis system with a buffer tank An electrolysis system for production of hydrogen and/or oxygen comprising a stack of electrolysis cells inside a pressure vessel (). Each electrolysis cell in the stack comprises a membrane (A,B) and a cassette () made of a bipolar plate () sand-wiched by a cathode (B) and an anode () forming a cathode compartment and an anode compartment on each side of the bipolar plate (). The stack is enclosed in a container constituting a buffer container for storing hydrogen released in the stack. The stack has an outlet constituting a hydrogen outlet for flow of hydrogen gas into said buffer container for filling the buffer container with hydrogen gas.

Electrolysis system with a buffer tank

Various embodiments of the present disclosure are directed to offshore frame construction. In one example embodiment, an offshore frame construction is disclosed including structural members and a structural joint connecting the structural members. The structural joint includes a fork part, an ear part, and a pin, where the fork part and the ear part includes a bore, and the pin is inserted into the bore. The pin has a non-corroding surface that is a cladding or bushing welded or shrunk or glued or otherwise affixed to the pin which consists of a different material, or the non-corroding surface is continuous with the pin and the pin consists of the non-corroding material. In some specific embodiments, the bore includes a sliding surface, which is fitted with a liner acting as a bearing, and the bearing is an elastomeric bearing.

Structural joint for offshore constructions and a method for the assembly of such offshore frame constructions and use of such structural joint

An offshore floating structure is provided including a floater with positive buoyancy and a keel with negative buoyancy, as well as active and passive suspenders connecting nodes of the keel and the floater with each other. When the keel at the offshore site is lowered by making the active suspenders longer, the passive suspenders, which have a fixed length and are held taut, causes the keel to rotate about the vertical during lowering.

Positioning of a keel of a floating structure, especially for a wind turbine

An energy storage system comprises a hot thermal energy storage medium and a cold thermal energy storage medium, which are interconnected in a thermodynamic gas flow circuit with gas as a working fluid. An energy converter with a motor/generator system is functionally connected to a compressor/expander system for converting between electrical energy and thermal energy of the gaseous working fluid in the thermodynamic fluid circuit. A latent TES medium is thermally connected to the thermodynamic circuit for providing a lower limit for the temperature in the cold TES medium. Specifically, the latent TES medium is liquid, typically water, which is sprayed as droplets into a tank through which the gaseous working fluid flows at subzero temperatures to produce snow in order to efficiently heat the gas to the freezing point or above.

Thermal energy storage system with a spray of phase change material and method of its operation

Operation of an energy storage system comprising a thermodynamic cycle including first and second thermal reservoirs and a turbomachinery as energy converter for two-way conversion between electrical energy and thermal energy. For controlling the temperature in the system, the compression ratio of the turbomachinery is adjusted in real-time during charging on the basis of temperature measurements downstream of the compression and/or during discharging on the basis of temperature measurements downstream of the expansion.

Operation of a thermal energy storage system

A method of operating an energy storage system (), the system () comprising a thermodynamic cycle including a first thermal energy storage container () and an energy converter () for converting between electrical energy and thermal energy of the working fluid in the thermodynamic fluid cycle. For controlling the thermocline in the system without large thermal energy loss, it is pushed only partially out of the first thermal energy storage container ().

Method of operating a thermal energy storage system

Thermal energy storage system with phase change material and method of its operation An energy storage system () comprises a hot thermal energy storage medium (′) and a cold thermal energy storage medium (′), which are interconnected in a thermo-dynamic gas flow circuit. An energy converter with a motor/generator system (A,B) is functionally connected to a compressor/expander system () for converting between electrical energy and thermal energy of the gaseous working fluid in the thermodynamic fluid circuit. A latent thermal energy storage working fluid is thermally connected to the gas flow circuit through heat exchanger () for providing a limit for the temperature in the cold TES medium (′).

Thermal energy storage system with phase change material and method of its operation

The application relates to a floatable foundation structure for an offshore structure including at least one floating body arrangement and at least one mass arrangement. The mass arrangement is connected to the floating body arrangement by at least one holding rope in a coupling state. Further, in the coupling state for coupling the floating body arrangement to the mass arrangement, a coupling section of the holding rope is arcuately guided around a contact section of the mass arrangement.

Buoyant foundation structure for an offshore construction

A protection system for a threaded fastener is provided. The system includes a threaded fastener, a sleeve and either two end caps, or one end cap and one threaded hole in a component. To avoid exposure to severely corrosive environments the sleeve and either the two end caps, or the one end cap and the one threaded hole, together form an enclosure around the threaded fastener. The enclosure forms a cavity which is completely sealed from the environment. Furthermore, methods are described for mounting, inspection and maintenance of such protection system.

Protection system for a threaded fastener and a method for installation, inspection and maintenance of such protection system

Provided is a floating wind turbine including a hull, a wind turbine mounted on top of the hull and a counterweight suspended below the hull by a counterweight suspension is described. Also, a method for the installation is described. The counterweight includes one or more counterweight buoyancy tanks. When the internal volume of the buoyancy tanks is filled with air, the total buoyancy of the counterweight is close to or greater than its weight. Hereby it is capable of floating in a towing/maintenance position with moderate or no support in the vertical direction from the hull or other vessels. During towing, the hull substantially has the character of a barge, substantially relying on a large waterplane area and shallow draft to maintain stability.

Floating wind turbine and a method for the installation of such floating wind turbine

A method for manufacturing a component for a wind turbine is provided. In a first step, a fiber material is laid onto a mold surface. In a further step, an uncured foam material is provided on top of the fiber material. Thereafter, the uncured foam material is cured to form a core member. Then, a resin impregnating the fiber material is cured to form the component. Thus, a core member for a component of a wind turbine can be provided easily.

Method for manufacturing a component for a wind turbine

A charging system with a least one high temperature thermal energy exchange system is provided. The high temperature thermal energy exchange system includes at least one heat exchange chamber with chamber boundaries which surround at least one chamber interior of the heat exchange chamber, wherein the chamber boundaries include at least one inlet opening for guiding in an inflow of at least one heat transfer fluid into the chamber interior and at least one outlet opening for guiding out an outflow of the heat transfer fluid out of the chamber interior. At least one heat storage material is arranged in the heat exchange chamber interior such that a heat exchange flow of the heat transfer fluid through the heat exchange chamber interior causes a heat exchange between the heat storage material and the heat transfer fluid.

Charging system with a high temperature thermal energy exchange system and method for charging heat storage material of the high temperature thermal energy exchange system with thermal energy

In a method for exhaust gas aftertreatment, in which an exhaust gas to be aftertreated, which is produced during combustion of a fuel, is treated with a reducing agent. A constituent of the fuel is hereby also used as a constituent of the reducing agent, with the constituent of the fuel which is also used as a constituent of the reducing agent being hydrogen. The hydrogen is produced from water, and the reducing agent is a mixture of hydrogen and ammonia.

Method for exhaust gas aftertreatment and combustion system

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Odense C, Denmark

Henrik Stiesdal