Translation of "Elektrische messtechnik" in English

Industrial instrumentation, electrical maintenance and elctronic data communications.

Application areas are video technology and electrical measurement technology.

The "electrical measuring technology" and the "digital technology" round off the offer.

This so-called “theodolite test machine” is described in detail, for example, in the article “TPM—Ein neues Gerät zur vollautomatischen Prüfung von Teilkreisen in elektronischen Theodoliten [TPM—A new device for fully automatic checking of reference circles in electronic theodolites]” by Hilmar Ingensand for the X. International Course for Engineering Surveying at the Technical University of Munich on 12-17.9.1988 and in the diploma thesis “Kalibriereinrichtung für Theodoliten [Calibration device for theodolites]” by Andreas Rützler, implemented at the Institute for General Electrical Technology and Electrical Measurement Technology of the Technical University of Graz in October 1991.

Mechanical and electrical workshops, state-of-the-art measurement technology, a clean room and an S2 lab also support our researchers in their work.

This research project is pursued collaboratively with Paderborn University, Measurement Engineering Group (Prof. Bernd Henning) and funded by the German Research Foundation (DFG).

The programme "Electricity and Magnetism" consists of five research projects aimed at developing electrical metrology which contributes to meeting these economic and social challenges in Europe:

Our offering covers the fields of general electrical measurement (testers, multimeters and current clamps), electrical safety testers, wattmeters and electrical network quality analysers, oscilloscopes and, more generally, instruments for testing electronic devices and measurement of physical parameters.

At the Institute of Electrical Measurement and Fundamental Electrical Engineering a magnetic column is being designed and built to effect the efficient separation of particles from biological impurities.

The invention pertains to the field of high-voltage engineering, particularly to electrical measuring techniques in encapsulated gas-insulated switchgear (GIS).

This course gives an introduction to electrical measurements and metrology systems. The content starts with basics of metrology and the measurement of electrical variables and properties (e.g. current, voltage, power, resistance, impedance) via measurement circuits, amplifiers, physical sensors, time and frequency measurement up to ditigal and automated measurement systems.

The exercises are conducted at the institutes for Microelectronic and Microsensors (IME), Measurement Technology (EMT), Communications Engineering and RF-Systems (NTHFS), and the Research Institute for Integrated Circuits (RIIC).

Daniel Watzenig is head of Electrics/ Electronics & Software at the competence centre and works at TU Graz's Institute of Electrical Measurement and Measurement Signal Processing .

Be it chemical engineering, energy, materials processing, electronic instruments, optics, metrology, or engineering – the University of Stuttgart's patent portfolio covers all bases and speaks volumes for its international reputation as a potent innovator.Â

The Bioresonance-LaesEr works with the latest but nevertheless conventional measuring technology to read electrical signals from the body of the client, amplifies them and optionally inverts or modulates them with secondary information or frequencies and sends them back to the client’s body.

Furthermore, consulting in the field of electrical metrology is offered. To top

Testo sets new standards in electrical measuring technology.

The electric measurement products have 81 parts to ensure precision no matter the situation.

We are interested to collaborate with industry in the field of electrical measurements.

Cable fault location is the process of locating periodic faults, such as insulation faults in underground cables, and is an application of electrical measurement systems.

Given this method from electrical measuring technology, the primary electron beam is pulsed synchronously with the frequency of the signal to be measured and the curve of potential is continuously scanned or sampled by displacing the cut-in time of the primary electron pulses.

From the literature (for example "Elektrische Me ?echnik" (Electrical Measuring Techniques), E. Schrufer, Hanser-Verlag, 1992, particularly pages 240 to 243), carrier frequency bridges and measurement amplifiers are also known.

There are several available techniques for the measurement of material conductance, and these can be basically divided into DC and AC techniques (Cooper, W. D., Helfrick, A. D. -E., Elektrische Me?technik [Electrical Measurment Techniques], VCH: Weinheim, Basel, Cambridge, N.Y., 1989).

Probe holders or electrostrictive manipulators known in the art of electrical metrology (probe measuring location) can be used for exact positioning of the probe onto the measuring location.

Conventional probe holders known in the art of electrical metrology (probe measuring location) can be used for positioning the roughly 0.5 through 1 mm long electro-optical crystal EO onto the interconnect LB. These probe holders are attached with magnetic or vacuum adapters to a stage or platform that is precisely, linearly height-adjustable with four synchronously running guide spindles.

Given this method from electrical measuring technology, the primary electron beam is pulsed synchronously with the frequency of the signal to be measured and the curve of potential is continuously scanned or sampled by displacing the cut-in time of the primary electron pulses.

Potentials s(t) changing very rapidly in time can be quantitatively measured with the electron beam measuring instrument 1 shown in FIG. 1 with the sampling method known from electrical measurement technology.

In the context of the project Bahn 2050as cooperation partner of the Institute for Electronic Messtechnik and the Institute for Grundlagen der Elektrotechnik, the Centre for Traffic of the TU Braunschweig (ZVB) will develop and evaluate a innovative concept for the improvement of the efficiency and flexibility of rail bound commercial traffic.

Constant innovation and technological progress in the fields of electrical metrology and ICT creates contemporary electricity meter based on high microprocessor standards fulfilling not only primary functions, such as power and energy measurement, but also controls, diagnostics and communication.