V. Krauz

发表

Propagation of a Plasma Flow Generated in a Plasma-Focus Discharge in the Background Plasma

V. Lisitsa, M. G. Levashova, I. Il’ichev, 2020 .

Spectroscopic studies of the parameters of plasma jets during their propagation in the background plasma on the PF-3 facility

S. Dan’ko, S. Ananyev, V. Krauz, 2017 .

Optical emission spectroscopy of deuterium and helium plasma jets emitted from plasma focus discharges at the PF-1000U facility

M. Paduch, M. Sadowski, E. Zielińska, 2016 .

Properties of toroidal magnetic fields in axial plasma flow on the PF-1000U plasma focus facility

K. Mitrofanov, Y. Istomin, M. Paduch, 2020, Journal of Plasma Physics.

Laboratory Simulations of the Radial Distribution of the Toroidal Magnetic Field in an Axial Jet from a Young Stellar Object

K. Mitrofanov, A. I. Markoliya, A. Timoshenko, 2019, Astronomy Reports.

Laboratory simulation of astrophysical jets within facilities of plasma focus type

E. Velikhov, V. Krauz, V. Beskin, 2018, International Journal of Modern Physics D.

Study of the implosion of wire arrays at the PF-3 facility

A. N. Mokeev, K. Mitrofanov, A. Zelenin, 2014 .

Laboratory Modeling of the Rotation of Jets Ejected from Young Stellar Objects at Studies the Azimuthal Structure of an Axial Jet at the PF-3 Facility

K. Mitrofanov, S. Anan’ev, I. Il’ichev, 2021 .

Features of the Radial and Axial Distributions of the Toroidal Magnetic Field in the Axial Jet Ejection at the PF-3 Facility

K. Mitrofanov, I. Il’ichev, V. Krauz, 2021, Plasma Physics Reports.

Research of plasma-focus discharge and generated flow with K-008 streak camera

I. Il’ichev, V. Krauz, V. Myalton, 2021 .

Influence of gas conditions on parameters of plasma jets generated in the PF-1000U plasma-focus facility

M. Paduch, M. Sadowski, E. Zielińska, 2018, Physics of Plasmas.

Properties of the distribution of azimuthal magnetic field in a plasma flow during laboratory simulations of astrophysical jets in a plasma-focus installation

K. Mitrofanov, V. Krauz, V. Myalton, 2017 .

Laboratory simulations of astrophysical jets: results from experiments at the PF-3, PF-1000U, and KPF-4 facilities

K. Mitrofanov, M. Paduch, K. Tomaszewski, 2017 .

Simulation of Nonrelativistic Jet Ejections During the Laboratory Studies

K. Mitrofanov, Y. Istomin, A. Kiselev, 2017 .

Study of Plasma Flows Generated in Plasma Focus Discharge in Different Regimes of Working Gas Filling

K. Mitrofanov, S. Ananyev, A. Timoshenko, 2017 .

PARAMETERS OF THE PLASMA STREAMS FROM THE PLASMA FOCUS IN EXPERIMENTS ON THE PF-3 FACILITY

E. Velikhov, S. Ananyev, V. Krauz, 2016 .

Study of the fine structure of the plasma current sheath and magnetic fields in the axial region of the PF-1000 facility

K. Mitrofanov, P. Kubes, M. Paduch, 2014 .

Study of the interrelation between the electrotechnical parameters of the plasma focus discharge circuit and the plasma compression dynamics on the PF-3 and PF-1000 facilities

K. Mitrofanov, M. Paduch, M. Scholz, 2015 .

Study of the azimuthal magnetic fields and scaling laws at the KPF-4-Phoenix facility

K. Mitrofanov, Y. Matveev, V. Krauz, 2013 .

Progress in plasma focus research at the Kurchatov Institute

G. G. Kanaev, A. N. Mokeev, K. Mitrofanov, 2014 .

Scenario of pinch evolution in a plasma focus discharge

K. Mitrofanov, P. Kubes, J. Kravarik, 2013 .

Correlation of magnetic probe and neutron signals with interferometry figures on the plasma focus discharge

K. Mitrofanov, P. Kubes, J. Kravarik, 2012 .

Laboratory and computer simulations of super-Alfvénic shocks in a weakly ionized medium

J. Vierne, D. Mourenas, V. V. Mialton, 2003 .

Nanostructures in controlled thermonuclear fusion devices

L. Khimchenko, V. Smirnov, V. Stankevich, 2011 .

Laboratory Simulation of the Structure of Jets from Young Stars

S. Lamzin, A. Dodin, V. Krauz, 2022, Plasma Physics Reports.

Influence of magnetic field and density of environment on collimation of laboratory jet

V. Krauz, V. Chechetkin, I. Kalashnikov, 2019, Journal of Physics: Conference Series.

Localization of the magnetic field in a plasma flow in laboratory simulations of astrophysical jets at the KPF-4-PHOENIX installation

K. Mitrofanov, S. Anan’ev, A. I. Markoliya, 2017 .

Study of soft X-ray emission during wire array implosion under plasma focus conditions at the PF-3 facility

K. Mitrofanov, S. Dan’ko, S. Anan’ev, 2015 .

Update on the Scientific Status of the Plasma Focus

R. Rawat, Guixin Zhang, L. Soto, 2021, Plasma.

LETTER TO THE EDITOR: The formation of the micropinch structure in plasma focus by the addition of heavy impurities

K. Koshelev, R. Salukvadze, V. Krauz, 1988 .

Experimental study of the structure of the plasma-current sheath on the PF-1000 facility

K. Mitrofanov, P. Kubes, M. Paduch, 2012 .

Progress in MJ plasma focus research at IPPLM

P. Kubes, M. Paduch, M. Sadowski, 2012 .

Dynamics of the Current Distribution in a Discharge of the PF-3 Plasma Focus Facility

G. G. Zukakishvili, K. Mitrofanov, V. S. Koĭdan, 2008, IEEE Transactions on Plasma Science.

Progress in plasma focus research and applications

V. Krauz, 2006 .

Filippov type plasma focus as intense source of hard X-rays (E/sub x//spl sime/50 keV)

V. F. Zinchenko, J. Brzosko, T. Filippova, 1996 .

Magnetic probe measurements of the current sheath on the PF-3 facility

K. Mitrofanov, V. S. Koĭdan, V. Krauz, 2010 .

Dynamics of the plasma current sheath in plasma focus discharges in different gases

V. Krauz, V. Myalton, A. Kharrasov, 2016 .

Influence of the radiation of the plasma-focus current sheath on the implosion dynamics of condensed targets

O. Krokhin, V. Smirnov, V. Fortov, 2008 .

Dynamics of a high-temperature pinch in the presence of dust

V. Smirnov, V. Fortov, V. Krauz, 2006 .

Features of the Application of the Magnetic-probe Method for Diagnostics of High-temperature Plasma

K. Mitrofanov, M. Paduch, V. Krauz, 2018 .

Dena, a new PF device

S. Goudarzi, M. Lamehi, H. Habibi, 2001 .

Study of the dynamics of a plasma current sheath in the KPF-4 Phoenix plasma-focus facility

E. A. Andreeshchev, D. A. Voĭtenko, V. I. Krauz, 2007 .

Magnetic field distribution in the plasma flow generated by a plasma focus discharge

K. Mitrofanov, E. Velikhov, V. Krauz, 2014 .

Development and study of a portable plasma focus neutron source

G. G. Kanaev, K. Mitrofanov, V. Krauz, 2014, Plasma Physics Reports.

Study of a cumulative jet in a plasma focus discharge by the method of shearing interferometry

S. P. Eliseev, E. Baronova, V. Krauz, 2012 .

Dynamics of the structure of the plasma current sheath in a plasma focus discharge

K. Mitrofanov, V. S. Koĭdan, V. Krauz, 2011 .

RECENT RESULTS OF STUDIES OF MAGNETIC FIELD DISTRIBUTION AND NEUTRON SCALING ON PF-1000 AND PF-3 FACILITIES

K. Mitrofanov, P. Kubes, M. Paduch, 2013 .

Laboratory modeling of jets from young stars using plasma focus facilities

V. S. Beskin, V. Krauz, Sergey Lamzin, 2021, Uspekhi Fizicheskih Nauk.

Study of electrochemical properties of thin film materials obtained using plasma technologies for production of electrodes for pacemakers

I. Guseva, O. Obrezkov, V. Krauz, 2016 .

The Collimated Propagation Causes of Astrophysical and Laboratory Jets

V. Chechetkin, A. Dodin, I. Il’ichev, 2021, Astronomy Reports.

Propagation dynamics of successive emissions in laboratory and astrophysical jets and problem of their collimation

P. Chardonnet, A. Dodin, V. Krauz, 2018, Physics of Plasmas.

The mathematical model of an astrophysical jet simulation by the laboratory facility “plasma focus”

V. Krauz, V. Chechetkin, I. Kalashnikov, 2017 .

Experimental evidence of existence of the axial magnetic field in a plasma focus

K. Mitrofanov, P. Kubes, M. Paduch, 2012 .