Tesla Coil Theoretical Model and its Experimental Verification

In this paper a theoretical model of Tesla coil operation is proposed. Tesla coil is described as a long line with distributed parameters in a single-wire form, where the line voltage is measured across electrically neutral space. By applying the principle of equivalence of single-wire and two-wire...

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Main Authors: Voitkans Janis, Voitkans Arnis
Format: Article
Language:English
Published: Sciendo 2014-12-01
Series:Electrical, Control and Communication Engineering
Subjects:
Online Access:https://doi.org/10.1515/ecce-2014-0018
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spelling doaj-ac054715d8a5425a837827f3d29ce2ff2021-09-05T20:44:46ZengSciendoElectrical, Control and Communication Engineering 2255-91592014-12-0171111910.1515/ecce-2014-0018ecce-2014-0018Tesla Coil Theoretical Model and its Experimental VerificationVoitkans Janis0Voitkans Arnis1Researcher, Riga Technical UniversityResearcher, University of LatviaIn this paper a theoretical model of Tesla coil operation is proposed. Tesla coil is described as a long line with distributed parameters in a single-wire form, where the line voltage is measured across electrically neutral space. By applying the principle of equivalence of single-wire and two-wire schemes an equivalent two-wire scheme can be found for a single-wire scheme and the already known long line theory can be applied to the Tesla coil. A new method of multiple reflections is developed to characterize a signal in a long line. Formulas for calculation of voltage in Tesla coil by coordinate and calculation of resonance frequencies are proposed. The theoretical calculations are verified experimentally. Resonance frequencies of Tesla coil are measured and voltage standing wave characteristics are obtained for different output capacities in the single-wire mode. Wave resistance and phase coefficient of Tesla coil is obtained. Experimental measurements show good compliance with the proposed theory. The formulas obtained in this paper are also usable for a regular two-wire long line with distributed parameters.https://doi.org/10.1515/ecce-2014-0018transformersresonancetransmission linesmathematical modelelectromagnetic modeling
collection DOAJ
language English
format Article
sources DOAJ
author Voitkans Janis
Voitkans Arnis
spellingShingle Voitkans Janis
Voitkans Arnis
Tesla Coil Theoretical Model and its Experimental Verification
Electrical, Control and Communication Engineering
transformers
resonance
transmission lines
mathematical model
electromagnetic modeling
author_facet Voitkans Janis
Voitkans Arnis
author_sort Voitkans Janis
title Tesla Coil Theoretical Model and its Experimental Verification
title_short Tesla Coil Theoretical Model and its Experimental Verification
title_full Tesla Coil Theoretical Model and its Experimental Verification
title_fullStr Tesla Coil Theoretical Model and its Experimental Verification
title_full_unstemmed Tesla Coil Theoretical Model and its Experimental Verification
title_sort tesla coil theoretical model and its experimental verification
publisher Sciendo
series Electrical, Control and Communication Engineering
issn 2255-9159
publishDate 2014-12-01
description In this paper a theoretical model of Tesla coil operation is proposed. Tesla coil is described as a long line with distributed parameters in a single-wire form, where the line voltage is measured across electrically neutral space. By applying the principle of equivalence of single-wire and two-wire schemes an equivalent two-wire scheme can be found for a single-wire scheme and the already known long line theory can be applied to the Tesla coil. A new method of multiple reflections is developed to characterize a signal in a long line. Formulas for calculation of voltage in Tesla coil by coordinate and calculation of resonance frequencies are proposed. The theoretical calculations are verified experimentally. Resonance frequencies of Tesla coil are measured and voltage standing wave characteristics are obtained for different output capacities in the single-wire mode. Wave resistance and phase coefficient of Tesla coil is obtained. Experimental measurements show good compliance with the proposed theory. The formulas obtained in this paper are also usable for a regular two-wire long line with distributed parameters.
topic transformers
resonance
transmission lines
mathematical model
electromagnetic modeling
url https://doi.org/10.1515/ecce-2014-0018
work_keys_str_mv AT voitkansjanis teslacoiltheoreticalmodelanditsexperimentalverification
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