Linde Aktiengesellschaft

Linde Gmbh

Weg Equipamentos Electricos S.a.

Basf Se Corporation

Linde Gmbm

Thyssen Krupp Ag

Thyssenkrupp Industrial Solutions Ag

Heinz Posselt

Marco Kleis

Marko Parkkonen

Mathieu Zellhuber

Heinrich Laib

Eric Jenne

Clara Delhomme-Neudecker

Martin Hofstätter

Reiner Jacob

Andrey Shustov

Heinz-Jürgen Kühn

Kiara Aenne Kochendörfer

Anders Gronlund

Otto Machhammer

Anton Wellenhofer

Nicolai Antweiler

Karsten Büker

Christian Ziegler

Robert Stegemann

Peter Reiser

Georg Kiese

Horst R&uuml;diger

Niels Treuchtlinger

Thiago Vegini

Markus Weikl

Cesar Luis Pinter

Jürgen Bichlmeier

Teodor Todorov

Christian Lang

Stefan C Agren

Martin Smedstad

Hans-Einar Forsberg

Gustavo Tadeu Omine

Philip Werner

Volker Jeromin

Dieter Mihailowitsch

Marian Krol

Hubert KÖPF

Michael Kogler

Niklas Fleischmann

A reactor includes a reactor vessel and one or more reaction tubes A number of tube sections of the one or more reaction tubes in each case run between a first region and a second region in the reactor vessel. For the electrical heating of the tube sections, the tube sections in the first region can be electrically connected to (a) current connection(s) of a current source. In the first region, current feed arrangements are provided; in each case one or in each case one group of the tube sections are electrically connected, and each comprise (a) contact passage(s) that in each case adjoin(s) at least one of the tube sections in the first region. A wall of the contact passages in each case is connected to a current feed element that has a rod-shaped section that runs at a wall passage through a wall of the reactor vessel.

Reactor and method for carrying out a chemical reaction

A reactor has a reactor vessel and a reaction tube. Tube sections of the reaction tube run inside the reactor vessel. The tube sections are each electrically connectable to a current connection in a current feed region. Current feed arrangements are arranged in the current feed region to which in each case one or one group of the tube sections is electrically connected. Each current feed arrangement has a first and a second section, the first section extending along a longitudinal axis starting from the respective or group of tube section(s). The first section at least partially surrounds the second section or the second section surrounds the first section in a sleeve-like manner. The first and second sections each have contact surfaces arranged obliquely to the longitudinal axis. The current feed arrangements each extend through a wall of the reactor vessel.

The invention relates to a reactor comprising a moving bed of solid particles that move in the direction of gravitation, and to a method for heating a reactor that comprises a moving bed, for the purpose of pyrolysis reactions.

Directly electrical heated reactor

The invention relates to a transport container for helium, comprising an inner container for receiving the helium, an insulation element that is provided on the exterior of the inner container, a coolant container for receiving a cryogenic liquid, an outer container in which the inner container and the coolant container are received, and a thermal shield which can be actively cooled with the aid of the cryogenic liquid and in which the inner container is received, wherein a peripheral gap is provided between the insulation element and the thermal shield, and said insulation element comprises an electrodeposited copper layer that faces the thermal shield.

Transport container and method

A transport container for helium, with an inner container for receiving the helium, a coolant container for receiving a cryogenic liquid (N), an outer container, in which the inner container and the coolant container are contained, a thermal shield, in which the inner container is contained and which can be actively cooled with the aid of a liquid phase of the cryogenic liquid (LN), the thermal shield having at least one first cooling line, in which the liquid phase of the cryogenic liquid can be received for actively cooling the thermal shield, and an insulating element, which is arranged between the outer container and the thermal shield and which can be actively cooled with the aid of a gaseous phase of the cryogenic liquid (GN), the insulating element having at least one second cooling line, in which the gaseous phase of the cryogenic liquid can be received.

Transport container

A transport container for helium, having an inner container for receiving helium, a thermal shield actively coolable with the aid of a cryogenic liquid and in which the inner container is accommodated, an outer container in which the thermal shield and inner container are accommodated, and a carrying ring provided on the thermal shield. The inner container is suspended from the carrying ring with the aid of first suspension rods, wherein the carrying ring is suspended from the outer container with the aid of second suspension rods, wherein at least one of the first suspension rods has a first spring device and at least one of the second suspension devices has a second spring device in order to ensure a spring pretension of the first suspension rods and the second suspension rods for different heat expansions of the inner container and the thermal shield.

The invention relates to a transport container () for helium (He), comprising an inner container () for receiving the liquid (He), an insulation element () that is provided on the exterior of the inner container (), a coolant container () for receiving a cryogenic liquid (N), an outer container () in which the inner container () and the coolant container () are received, and a thermal shield () which can be actively cooled with the aid of the cryogenic liquid (N) and in which the inner container () is received, wherein a peripheral gap () is provided between the insulation element () and the thermal shield (), and said insulation element () comprises a copper layer () that faces the thermal shield ().

The invention relates to a transport container () for helium (He), comprising an inner container () for receiving the helium (He), a coolant container () for receiving a cryogenic liquid (N), an outer container () in which the inner container () and the coolant container () are received, and a thermal shield () which can be actively cooled with the aid of the cryogenic liquid (N), the thermal shield () comprising a tubular base section () in which the inner container () is received, and a cover section () that closes the base section () at the front and that is arranged between the inner container () and the coolant container (), wherein an intermediate space () is provided between the inner container () and the coolant.

A method for manufacturing a rotor for a slip ring motor, including the steps of: a) arranging a plurality of electric cables inside a hollow shaft, wherein the electric cables are distributed over an inner circumference of the hollow shaft, b) filling a resin into an empty space defined between the hollow shaft and the electric cables, c) arranging a rod inside the hollow shaft thereby displacing the resin into an annular gap between the rod and the hollow shaft, wherein the electric cables are arranged in the annular gap, and d) curing of the resin to form the rotor.

Method for manufacturing a rotor for a slip ring motor, rotor for a slip ring motor and slip ring motor

A female contact element for a slip ring motor with a power output &#x3e;1 MW. The female contact element is configured for engagement with a male contact element to make an electrical connection between the female contact element and the male contact element. The female contact element is made of a Cu&#x2014;Be-alloy.

Female contact element for a slip ring motor and slip ring motor

A rotor for a slip ring motor includes a hollow shaft with an open end, a plurality of electric cables, and a cable guide arranged in the open end guiding the electric cables from inside the hollow shaft towards connection points of the electric cables outside of the hollow shaft.

Rotor for a slip ring motor and slip ring motor

A device for increasing pressure in a storage container for cryogenic liquids comprises a housing within a storage container, the housing having at least one intake opening for liquid and, inside, a heating device for evaporating liquid. A vapor line is arranged in the upper third of the housing to remove the vapor bubbles that are produced during evaporation. The cross-section of the vapor line is large so that when the device is operated, more vapor than liquid, preferably only vapor, exhausts through the vapor line.

Pressure build-up evaporator

Growing community of inventors

Bad Aibling, Germany

Heinz Posselt