Voith Patent Gmbh

Voith Hydro Holding Gmbh & Co. Kg

Norman Perner

Benjamin Holstein

Andreas Lange

Raphael Arlitt

Rolf Hoffmann

Frank Biskup

Michael Holle

Wolfgang Maier

Klaus Spiegel

Alexander Sauer

Hans Borrmann

Klaus Krüger

Michael Hölle

A method for producing a plain bearing including at least one plain bearing segment for forming a first plain bearing shell, at least one running element of a second plain bearing shell which forms a counter-bearing surface to the at least one plain bearing segment, with a sliding surface of the at least one running element having a higher hardness than a sliding surface of the at least one plain bearing segment, a carrying body for the at least one running element, an intermediate layer which is arranged between the at least one running element and the carrying body, a plastic deformability of which can be set by a temperature guidance. The method includes heating the intermediate layer, adjusting the running element, and reducing the plastic deformability of the intermediate layer by the temperature guidance.

Plain bearing having a hard/soft pairing

Presented is an underwater power plant including a support structure, a nacelle, the support structure and the nacelle being detachably connectable to one another via a coupling device, a water turbine, the water turbine at least indirectly drives an electrical generator that is received in the nacelle, and an inductive transmission device, where inductive transmission device transmits power generated by the electrical generator from the nacelle in a contactless manner to the support structure, and where the inductive transmission device includes a transformer with a primary side and a secondary side, the primary side is assigned to the nacelle and the secondary side is assigned to the support structure.

Underwater power plant having removable nacelle

The invention relates to a tidal power plant, comprising a turbine, which rotates on a carrying element; a foundation structure, on which the carrying element is supported on at least one coupling device, an upper part of the coupling device that is part of the carrying element being detachably operatively connected to a lower part of the coupling device that is part of the foundation structure in the installed state, wherein the invention is characterized in that the carrying element is individually adapted to the orientation of the lower part of the coupling device existing after the foundation structure has been created.

Tidal power plant and method for the creation thereof

There is provided a maritime current power plant park that includes a plurality of maritime current power plants, where each of the plurality of maritime current power plants has a rotor-like water turbine, an electric generator, and a drive train connecting the electric generator to the rotor-like water turbine. The drive train has bearing components for supporting the rotor-like water turbine. At least two of the plurality of maritime current power plants have differently dimensioned rotor-like water turbines, and the drive train of each of the at least two of the plurality of maritime current power plants is uniform.

Maritime current power plant park and a method for its production

An installation method for an underwater power plant includes a nacelle comprising a nacelle housing having a first nacelle housing section, a water turbine including a drive connection to a drive shaft, the drive shaft being mounted inside the first nacelle housing section, an electrical generator, comprising a generator rotor and a generator stator, and a generator housing. The electrical generator and the generator housing from a separate generator module that can be handled and installed as a whole, and an adjustment of bearings for the drive shaft is executed before a production of a coupling between the generator module and the drive shaft, and the generator housing is coupled in a rotationally-fixed manner to the first nacelle housing section and the generator is coupled in a rotationally-fixed manner to the drive shaft, the generator rotor being carried by the drive shaft after the coupling.

Submarine power station and assembly thereof

The invention concerns a tubular turbine generator unit including

Tubular turbine generator unit

Power generation plant for obtaining electrical power from a water or air flow includes a turbine; an electrical generator, having a coaxial configuration of a rotor and a stator. The rotor is an external rotor and part of an annular support structure for the turbine. The stator is housed in a stator housing which is sealed to the ambient medium and a wall area of the sealed stator housing running in the area of the gap between rotor and stator so that the rotor is situated radially outside the sealed stator housing and the magnetic interaction between rotor and stator occurs through this wall area. A mount for the annular support structure includes the rotor. The mount is situated adjoining the gap between the rotor and stator and is supported on the external circumference of the sealed stator housing.

Energy generation plant driven by wind or water currents

There is provided a power generation plant for obtaining electrical power from a water flow. The power generation plant includes a revolving unit having a water turbine, a directly driven electrical generator having a coaxial configuration with a generator rotor and generator stator, a gondola housing having a housing part to form a cylindrical internal opening where the generator stator is situated, a support element for supporting the revolving unit which is situated coaxially and radially inside the cylindrical internal opening to bear the generator rotor, and a bearing configuration for the running of the support element in the cylindrical internal opening. The electric generator of the power generation plant is situated asymmetrically in relation to the longitudinal extension of the cylindrical internal opening in the gondola housing and is also displaced toward the support structure carrying the gondola housing.

Submersible power generating plant, driven by a water flow

A submersible power generation plant includes a water turbine standing freely on a support structure in an ambient flow; an electric generator which is driven at least indirectly by the water turbine; at least one generator component of the electric generator is enclosed by at least one corrosion protection element which seals against ambient water, with cavities within the corrosion protection element each being filled with a heat-conductive medium; at least one pass-through duct being provided for dissipating waste heat from the electric generator, which the pass-through duct conducts the ambient water and leads through the corrosion protection element without entering into any material exchange with a region encapsulated by the corrosion protection element, and a growth protection system arranged on a flow input of the pass-through duct on an upstream side.

Immersible energy generation installation

A hybrid bearing, comprising a first bearing shell with a sliding face and a second bearing shell with a second sliding face, with the first sliding face and the second sliding face being located opposite one another at a bearing gap. The first bearing shell comprises a first support body and the second bearing shell comprises a second support body. Elements which are made of slide bearing material are attached to the first support body and to the second support body, with the elements made of slide bearing material forming at least part of the first sliding face and of the second sliding face. Permanent magnets are connected to the first support body and the second support body, with the permanent magnets being arranged spaced apart from the first sliding face and the second sliding face.

Hybrid bearing and method for the production thereof

A method an apparatus for operating an underwater power plant including a support structure; at least one turbine; at least one electric machine configured to be operated as a generator or a motor, the at least one electric machine being in an at least indirect drive connection with the at least one turbine and the at least one electric machine in a motive operation is configured to drive the at least one turbine to produce a propulsive power; and a spacer element between the at least one turbine and the support structure, wherein the at least one turbine is attached to one end of the spacer element and a pivot joint to the support structure is attached to an opposing end of the spacer element, a linkage point of the pivot joint having an eccentricity which is a lateral offset to a force action line of the propulsive power.

Growing community of inventors

Neu-Ulm, Germany

Norman Perner