Standard

THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS. / Krasilnikov, Mikhail B.; Kudryavtsev, Anatoly A.

2015. Abstract from ICOPS 2015. The 42nd IEEE International Conference on Plasma Science, Belek, Turkey.

Research output: Contribution to conferenceAbstractpeer-review

Harvard

Krasilnikov, MB & Kudryavtsev, AA 2015, 'THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS', ICOPS 2015. The 42nd IEEE International Conference on Plasma Science, Belek, Turkey, 23/05/15 - 27/05/15.

APA

Krasilnikov, M. B., & Kudryavtsev, A. A. (2015). THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS. Abstract from ICOPS 2015. The 42nd IEEE International Conference on Plasma Science, Belek, Turkey.

Vancouver

Krasilnikov MB, Kudryavtsev AA. THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS. 2015. Abstract from ICOPS 2015. The 42nd IEEE International Conference on Plasma Science, Belek, Turkey.

Author

Krasilnikov, Mikhail B. ; Kudryavtsev, Anatoly A. / THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS. Abstract from ICOPS 2015. The 42nd IEEE International Conference on Plasma Science, Belek, Turkey.

BibTeX

@conference{6bc6cf7eed50422ca14e2c8169fbdb5e,
title = "THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS",
abstract = "he local approximation for EDF is widely used for the obtaining plasma characteristics with participation of electrons. This means that the terms corresponding to spatial gradients and to the ambipolar field can be omitted in the Boltzmann equation and EDF can be factorized as the product of the electron density, which depends on the spatial coordinates and time, and the EDF depending on the local electric field strength at a given point (see f.e. [1]). Accordingly, the characteristics for the different electron processes also depend on local electric field. On the other hand, the kinetic equation contains total electric field at a given point. In other words, electrons {"}feel{"} total electric field which is sum of heating, ambipolar, high-frequency electric fields, etc. This means that when ambipolar field exceeds the heating one, applicability of the local approximation for EDF seems to be ambiguously. In present work analysis of applicability criteria of the local approximation for EDF has been proce",
keywords = "Ambipolar electric field",
author = "Krasilnikov, {Mikhail B.} and Kudryavtsev, {Anatoly A.}",
year = "2015",
language = "не определен",
note = "null ; Conference date: 23-05-2015 Through 27-05-2015",
url = "http://ece-events.unm.edu/icops2015/index.html",

}

RIS

TY - CONF

T1 - THE INFLUENCE OF AMBIPOLAR ELECTRIC FIELD ON THE EDF FORMATION AND THE ELECTRON PROCESSES IN PARTIALLY IONIZED PLASMAS

AU - Krasilnikov, Mikhail B.

AU - Kudryavtsev, Anatoly A.

PY - 2015

Y1 - 2015

N2 - he local approximation for EDF is widely used for the obtaining plasma characteristics with participation of electrons. This means that the terms corresponding to spatial gradients and to the ambipolar field can be omitted in the Boltzmann equation and EDF can be factorized as the product of the electron density, which depends on the spatial coordinates and time, and the EDF depending on the local electric field strength at a given point (see f.e. [1]). Accordingly, the characteristics for the different electron processes also depend on local electric field. On the other hand, the kinetic equation contains total electric field at a given point. In other words, electrons "feel" total electric field which is sum of heating, ambipolar, high-frequency electric fields, etc. This means that when ambipolar field exceeds the heating one, applicability of the local approximation for EDF seems to be ambiguously. In present work analysis of applicability criteria of the local approximation for EDF has been proce

AB - he local approximation for EDF is widely used for the obtaining plasma characteristics with participation of electrons. This means that the terms corresponding to spatial gradients and to the ambipolar field can be omitted in the Boltzmann equation and EDF can be factorized as the product of the electron density, which depends on the spatial coordinates and time, and the EDF depending on the local electric field strength at a given point (see f.e. [1]). Accordingly, the characteristics for the different electron processes also depend on local electric field. On the other hand, the kinetic equation contains total electric field at a given point. In other words, electrons "feel" total electric field which is sum of heating, ambipolar, high-frequency electric fields, etc. This means that when ambipolar field exceeds the heating one, applicability of the local approximation for EDF seems to be ambiguously. In present work analysis of applicability criteria of the local approximation for EDF has been proce

KW - Ambipolar electric field

M3 - тезисы

Y2 - 23 May 2015 through 27 May 2015

ER -

ID: 6939691