Zugriffsnummer 51357
Dokumenttyp Konferenzartikel
Peer Review mit Peer Review
Sprache Englisch
Titel Further developments of metrological and simulation-based characterization of the non-contact measurement of electrostatic charge by means of electric field meters
Autor(in); Institution
Schierding, Carola; 3.7, Grundlagen des Explosionsschutzes, PTB-Braunschweig
Möckel, Dieter; 3.7, Grundlagen des Explosionsschutzes, PTB-Braunschweig
Thedens, Martin; 3.6, Explosionsgeschützte Sensorik und Messtechnik, PTB-Braunschweig
Beyer, Michael; 3.7, Grundlagen des Explosionsschutzes, PTB-Braunschweig
Kurrat, Michael; Technische Universität Braunschweig, Fakultät für Elektrotechnik, elenia Institut für Hochspannungstechnik und Energiesysteme, Braunschweig, GERMANY
Quelle/Jahr Proceedings of the 21st International Symposium on High Voltage Engineering: Volume 1 (2019), 55 - 66
Schriftenreihe Lecture Notes in Electrical Engineering: 598
ISBN 978-3-030-31675-4 (print) ; 978-3-030-31676-1 (online)
DOI
Verlag Cham: Springer International Publishing
Konferenzangaben 21st International Symposium on High Voltage Engineering, Budapest, 26-30, August, 2019, Hungary
Freie Schlagworte electric field meter ; field-simulation ; electrostatics
Zusammenfassung Electrostatic charges and discharges on surfaces can result in safety-relevant problems under certain conditions in different areas of application, from electrical energy technology to explosion protection. In the field of elec-trical energy technology, electrostatic charging is important for high-voltage di-rect current transmission (HVDC). In this case, the stress of insulation systems results in effects such as volume conductivity and surface charges. Furthermore, electrostatic discharges in potentially explosive atmospheres can lead to ignition of an explosive mixture and thus to explosion. Many electric and mechanical devices have enclosures made of chargeable insulating materials and must be evaluated for use in potentially explosive atmospheres. The measurement of the electric field strength by means of electrical field me-ters can be carried out without contact or disturbing the object under investiga-tion - the charge of the material - and without causing a discharge. In order to establish the electrical field meter as a measuring instrument, precise knowledge of the measurement method, the characterization of the influencing parameters on the measurement and the traceability of the measured values to national standards are required. For the metrological characterization of the non-contact measurement of electrostatic charge, a test setup was developed which represents the parameters to be investigated (e. g. real surface geome-tries, distance dependence). Furthermore, theoretical approaches for a simula-tion-based characterization were considered. Preliminary results of the charac-terization for idealized conditions (homogeneous electric field configurations) showed that the measurement accuracy with regard to distance dependence and object size could be determined. In addition, a cone detection method of the electric field meter measuring head has been verified by simulation. As a next step, to the simulation-based determination of the measuring angle a metrologi-cal method for the determination is developed. Thereby, the measurement setup is refined which is here considered together with the analytical evaluation. Fur-thermore, it is necessary to quantify the simulation-based characterization for different types of electrical field meter measuring devices. The influence of the diameter of the electric field meter measuring head on the measuring angle and the resulting detection cone is investigated.
Themenbereich der Metrologie Physikalische Sicherheitstechnik, Explosionsschutz
Geschäftsfelder Grundlagen der Metrologie

Zitierung

Schierding, C., Möckel, D., Thedens, M., Beyer, M., & Kurrat, M. (2019). Further developments of metrological and simulation-based characterization of the non-contact measurement of electrostatic charge by means of electric field meters. 21st International Symposium on High Voltage Engineering, Budapest, 26-30, August, 2019, Hungary. https://doi.org/10.1007/978-3-030-31676-1_6

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