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Sebastian Breisch

Christian Reuber

Christoph Budde

Radek Javora

Tomas Kozel

Josef Cernohous

Harald Staab

Christian Simonidis

Joerg Gebhardt

Paul Szasz

Emanuele Morelli

Fan Dai

Gianluca Cortinovis

Andrea Delpozzo

Tobias Schönberg

Klaus Kraft

Stephan Wildermuth

Maik Hyrenbach

Wolfgang Waldi

Daniel Staffas

Guruprasad Sosale

Lothar Heinemann

Henrik Lohrberg

Franz-Josef Körber

Pavel Vrbka

Thomas Stahl

Debora Clever

Matthias Berning

Nuo Li

Veronica Biagini

Sven Soetebier

Alexander Graf

Vadim Migunov

Arda Tueysuez

Ryan Chladny

Markus Kesberger

Hans-Jürgen Schmitt

Claus Nitsch

Simon Penner

Holger Reutner

Stefan Wildermuth

Alessandro Stucchi

Ondrej Frantisek

Maria Buchh

Gregor Stengel

Anke Hackbarth

Günther Mechler

Ivan Cirovic

Thomas Braun

Felix Boy

Thorsten Schindler

Arda Tüysüz

Guenther Mechler

Boris Schulmann

Paolo Bolognesi

Günther Dipl-Phys Mechler

Sven Dr-Ing Soetebier

Timothy Vittor

A magnetic force compensator for at least partially compensating a closing force required to shift a valve of a pneumatic positioner into a closed position using a magnetic device, the magnetic device including a permanent magnet; and a magnetic counterpart; wherein the magnetic device and the magnetic counterpart are configured to interact to create an attracting force for the at least partially compensation of the closing force; and wherein the magnetic force compensator is configured to be mechanically coupled to the valve of the pneumatic positioner.

Magnetic force compensator for a pneumatic positioner

A robot application development system and method includes a robot application unit that determines a robot application, which defines the industrial robot in a robot workspace. An input interface receives robot application information. An object data interface receives work piece information. A gripper finger design unit determines a gripper finger design. The robot application unit determines the robot application using the robot application information. The gripper finger design unit determines the gripper finger design using the work piece information and the robot application information.

Robot application development system

A measurement system for determining a physical parameter of a pipe-fluid system includes a pair of confining elements configured to decrease surface vibration deformations at an outer surface of each end of the pipe-fluid system; wherein each confining element comprise a supporting frame configured to be detachably mounted on a pipe of the pipe-fluid system; and a fixation element configured to be detachably mounted for mechanically coupling the supporting frame with an outer surface of the pipe; an excitation system, configured to generate a mechanical vibration spectrum at a surface of the pipe-fluid system; and a vibration measurement device configured to be mechanically coupled to an outer surface of the pipe-fluid system, and configured to provide a mechanical vibration spectrum of the pipe-fluid system.

Measurement system for determining a physical parameter of a pipe-fluid system

A contact measurement system for measuring a parameter of a contact of a switchgear includes: a first device for measuring an electrical resistance of the contact and mapping the electrical resistance spatially and/or dynamically; a second device for measuring an axial force of the contact and to map the axial force spatially and/or dynamically as a measured axial force; and a third device for measuring a position of the contact. The contact measurement system determines a position-depending force characteristic based on the measured axial force of the contact and the position of the contact. The contact measurement system determines a status of the contact based on a combination of the position-depending force characteristic with the electrical resistance of the contact.

Contact measurement system and method for measuring a parameter of a contact of a switchgear

A switchgear or control gear includes: at least one first compartment; a second compartment; a plurality of main switchgear or control gear components, the plurality of main switchgear or control gear components including a main busbar system, a three position linear or rotational movement disconnector, a circuit breaker, and a cable connection; and a plurality of auxiliary switchgear or control gear components, the plurality of auxiliary switchgear or control gear components including a disconnector drive and a circuit breaker drive. The plurality of main switchgear or control gear components are housed in the at least one first compartment. The plurality of auxiliary switchgear or control components are housed in the second compartment. The circuit breaker and three position or rotational movement disconnector are mounted vertically in the at least one first compartment.

Three phase switchgear or control gear

A three phase switchgear or control gear includes: at least one compartment; a plurality of components for a first phase; a plurality of components for a second phase; and a plurality of components for a third phase. The plurality of components for the first phase, the second phase, and the third phase each include a connection to a main busbar, a circuit breaker actuator, a single phase circuit breaker pole, and a cable connection. The circuit breaker actuator and the single phase circuit breaker pole for the first phase are oriented along a first axis. The circuit breaker actuator and the single phase circuit breaker pole for the second phase are oriented along a second axis. The circuit breaker actuator and the single phase circuit breaker pole for the third phase are oriented along a third axis. The first axis, the second axis, and the third axis are inclined.

A mechanical latching unit for a main drive unit includes a rolling mechanical switch within a housing, with a main roller, a counter roller, a carriage and a carriage trip/locking lever, with a first joint created between the main roller and the first end of the carriage, where by the load of the traction link of the main drive unit carried out to the main roller distributes a primary force component carried out to the counter roller and a secondary force component carried out in a direction to a second end of the carriage, where by the mechanical latching unit includes a force reduction mechanism having at least two force reduction stages, a carrier reset spring fastened to the housing which resets the carriage back to a neutral respectively blocking position, and a lever reset spring which resets the carriage trip/locking lever back to a neutral respectively blocking position.

Mechanical latching unit for a main drive unit

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Neckarsteinach, Germany

Sebastian Breisch