Abb Research Ltd.

Abb Schweiz Ag

Abb Patent Gmbh

Guntram Scheible

Dacfey Dzung

Yauheni Veryha

Thomas Keul

Kai Garrels

Lothar Heinemann

Bernd Smailus

Jean Schutz

Martin Klaus

Arthur Korn

Harald Vefling

Jochen Mast

Anne Vallestad

Jens Helfrich

Rolf Merte

Heinrich Deckmann

Colin Luthardt

Carsten Oberschmidt

Ralf Huck

Dietmar Overhoff

A control system configured to control safety-critical and non-safety-critical processes and/or plant components includes: a non-safety controller module, at least one safety controller module, and at least one condition monitoring module. The non-safety controller module is configured to control the non-safety-critical processes and/or the non-safety-critical plant components. The at least one safety controller module is configured to control the safety-critical processes and/or the safety-critical plant components. The at least one condition monitoring module is configured to perform fail-safe condition monitoring and to collect monitoring data. The non-safety controller module is configured to receive the collected monitoring data from the condition monitoring module and to pass the collected monitoring data to the safety controller module. The safety-controller module is configured to evaluate the monitoring data based on safety conditions.

Control system for controlling safety-critical and non-safety-critical processes

A method for controlling a plurality of power converters connected to a power supply network is described. Each power converter includes high-power semiconductor devices. Control signals are sent between a controller and a wireless node of one or more of said plurality of power converters using a wireless communication system. The control signals are transmitted to a local wireless node of one or more of a plurality of power converters. The data transmissions include data packets including control information such that a clock of the local wireless node can be synchronized using time synchronization information of the wireless communication system. In other aspects of the invention a system employing the method and a computer program for carrying out the method are described.

Wireless control of power network switching devices

The invention relates to a variable transformer comprising at least one primary winding and at least one secondary winding which can be rotated in relation thereto. The primary winding and the secondary winding are subdivided into at least two winding sections. The winding sections interlock in a comb-like manner and the flow of current of directly opposite winding sections is directed in the respective opposite direction.

Rotary transformer

A magnetic field production system is proposed and has a two-dimensional winding configuration with two windings. The windings are disposed essentially orthogonally with respect to one another and enclose a machine or system. The windings have winding axes that are essentially at right angles to one another, and which are supplied with alternating variables via two feed circuits. In order to produce a two-dimensional, rotating magnetic field, the two alternating variables are at the same frequency, have similar current amplitudes and similar voltage amplitudes, and are synchronized to one another. A phase shift of preferably 90&#xb0; is set between the alternating variable of the first feed circuit and the alternating variable of the second feed circuit. Furthermore, a three-dimensional magnetic field, as well as an configuration for wire-free supply of a large number of sensors and/or actuators using a magnetic field production system are possible.

Magnetic field production system, and configuration for wire-free supply of a large number of sensors and/or actuators using a magnetic field production system

A proximity sensor with a sensor head for generating sensor signals is described. The proximity sensor is divided into a fastening portion containing a sensor head, and an electronics portion that can be connected to the fastening portion and has at least a sensor-signal evaluation unit and a power supply. The sensor signals pass from the fastening portion to the electronics portion via electrical contacts or contactlessly. Furthermore, a modular system for forming proximity sensors is proposed, and contains a multiplicity of fastening portions, respectively containing a sensor head, with different dimensioning and, connectable herewith, in each case identical electronics portions.

Proximity sensor

A configuration for producing electrical power from a magnetic field includes a three-dimensional winding configuration formed from a central core of a magnetic material on which at least three windings are fitted. The windings have winding axes each disposed at right angles to one another and intersecting at a common point. Each of the windings is connected to a rectifier. Each of the windings is, preferably, connected to a resonant capacitor to form a resonant circuit.

Configuration for producing electrical power from a magnetic field

A system for a machine, in particular an automated production machine, has a large number of proximity sensors. Each proximity sensor has at least one secondary winding that is suitable for drawing power from a medium-frequency magnetic field. At least one primary winding, which is fed from a medium-frequency oscillator, is provided for supplying the proximity sensors with electrical power without using wires. Each proximity sensor is equipped with a transmitting device that emits radio signals, which contain sensor information of interest, to a central receiving device that is connected to a process computer for the machine. A proximity sensor and a primary winding for this purpose are also proposed.

System for a machine having a large number of proximity sensors, as well as a proximity sensor, and a primary winding for this purpose

A configuration for supplying a large number of actuators with electrical power without using wires includes at least one primary winding that is fed from a medium-frequency oscillator. Each actuator has at least one secondary winding that is suitable for drawing power from a medium-frequency magnetic field.

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Hirschberg, Germany

Guntram Scheible