Detail publikace

Diagnostics of Underwater Discharges in Electrolytes

KOZÁKOVÁ, Z. HLAVATÁ, L. HLOCHOVÁ, L. KRČMA, F. NĚMCOVÁ, L.

Originální název

Diagnostics of Underwater Discharges in Electrolytes

Anglický název

Diagnostics of Underwater Discharges in Electrolytes

Jazyk

en

Originální abstrakt

Electric discharge generated in electrolyte solutions by DC or AC high voltage is investigated. Plasma reactors use a pin-hole configuration of the discharge. Time resolved characteristics of voltage, current, sound, and emitted light revealed processes of bubble formation and discharge breakdown. ICCD images confirm thermal and electron theories of the discharge generation in water solutions. Optical emission spectroscopy determines formation of hydroxyl radicals, hydrogen and oxygen atoms as well as emission of sodium atoms from the dissolved electrolyte.

Anglický abstrakt

Electric discharge generated in electrolyte solutions by DC or AC high voltage is investigated. Plasma reactors use a pin-hole configuration of the discharge. Time resolved characteristics of voltage, current, sound, and emitted light revealed processes of bubble formation and discharge breakdown. ICCD images confirm thermal and electron theories of the discharge generation in water solutions. Optical emission spectroscopy determines formation of hydroxyl radicals, hydrogen and oxygen atoms as well as emission of sodium atoms from the dissolved electrolyte.

Dokumenty

BibTex 


@inproceedings{BUT73711,
  author="Zdenka {Kozáková} and Lucie {Dřímalková} and Lenka {Holíková} and František {Krčma} and Lucie {Němcová}",
  title="Diagnostics of Underwater Discharges in Electrolytes",
  annote="Electric discharge generated in electrolyte solutions by DC or AC high voltage is investigated. Plasma reactors use a pin-hole configuration of the discharge. Time resolved characteristics of voltage, current, sound, and emitted light revealed processes of bubble formation and discharge breakdown. ICCD images confirm thermal and electron theories of the discharge generation in water solutions. Optical emission spectroscopy determines formation of hydroxyl radicals, hydrogen and oxygen atoms as well as emission of sodium atoms from the dissolved electrolyte.",
  booktitle="Proceedings of XIX Symposium on Physics of Switching Arc",
  chapter="73711",
  howpublished="print",
  year="2011",
  month="september",
  pages="255--258",
  type="conference paper"
}