V. Chebotarev

发表

Influence of surface tension on macroscopic erosion of castellated tungsten surfaces during repetitive transient plasma loads

Y. Petrov, V. Makhlai, S. Herashchenko, 2019, Nuclear Materials and Energy.

Vapour shielding of liquid-metal CPS-based targets under ELM-like and disruption transient loading

Y. Petrov, V. Makhlai, S. Herashchenko, 2021 .

Application of powerful quasi-steady-state plasma accelerators for simulation of ITER transient heat loads on divertor surfaces

V. I. Tereshin, O. V. Byrka, I. Garkusha, 2007 .

IT / P 6-12 Simulation of ITER Transient Heat Loads to the Divertor Surfaces with Using the High Power Quasi-Steady-State Plasma Accelerator

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2008 .

Novel test-bed facility for PSI issues in fusion reactor conditions on the base of next generation QSPA plasma accelerator

Y. Petrov, S. Herashchenko, I. Garkusha, 2017 .

Characteristics of transient plasma layers produced by irradiation of graphite targets by high power quasi-stationary plasma streams under the disruption simulation conditions

V. I. Tereshin, S. A. Trubchaninov, I. Garkusha, 1996 .

Residual stresses in tungsten under exposures with ITER ELM-like plasma loads

V. I. Tereshin, A. T. Pugachov, J. Linke, 2009 .

Dust generation mechanisms under powerful plasma impacts to the tungsten surfaces in ITER ELM simulation experiments

A. T. Pugachov, N. N. Aksenov, I. Garkusha, 2013 .

Plasma-Surface Interaction during ITER Type 1 ELMs: Comparison of Simulation with QSPA KH-50 and the GOL-3 Facilities

V. I. Tereshin, S. Polosatkin, I. Garkusha, 2011 .

Repetitive Plasma Loads Typical for ITER Type‐I ELMS: Simulation in QSPA Kh‐50

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2006 .

Simulation of iter transient heat loads to the divertor surfaces with using the powerful quasi-steady-state plasma accelerator

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2006 .

Influence of a magnetic field on plasma energy transfer to material surfaces in edge-localized mode simulation experiments with QSPA-M

Y. Petrov, V. Makhlai, S. Herashchenko, 2019, Nuclear Fusion.

Experimental study of plasma energy transfer and material erosion under ELM-like heat loads

V. I. Tereshin, N. N. Aksenov, I. Garkusha, 2009 .

Damage to preheated tungsten targets after multiple plasma impacts simulating ITER ELMs

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2009 .

Tungsten melt layer erosion due to J × B force under conditions relevant to ITER ELMs

V. I. Tereshin, Y. Petrov, B. Bazylev, 2007 .

DISCHARGE PARAMETERS OF MAGNETOPLASMA COMPRESSOR: EFFECT OF EXTERNAL AXIAL MAGNETIC FIELD

Y. Petrov, V. Chebotarev, V. Staltsov, 2020 .

Influence of plasma pressure gradient on melt layer macroscopic erosion of metal targets in disruption simulation experiments

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2003 .

Effect of preheating on the damage to tungsten targets after repetitive ITER ELM-like heat loads

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2007 .

Tungsten erosion under plasma heat loads typical for ITER type I ELMs and disruptions

V. I. Tereshin, S. A. Trubchaninov, I. Garkusha, 2005 .

Powerful quasi-steady-state plasma accelerator for fusion experiments

V. I. Tereshin, S. A. Trubchaninov, A. Morozov, 2002 .

Application of pulsed plasma accelerators for surface modification

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2001 .

Pulsed plasma accelerators of different gas ions for surface modification

V. I. Tereshin, I. Brown, A. S. Tortika, 2002 .

Coating deposition and surface modification under combined plasma processing

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2004 .

Application of piezodetectors for diagnostics of pulsed and quasi-steady-state plasma streams

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2006 .

Thin films deposition with ECR planar plasma source

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2006 .

Features of materials alloying under exposures to pulsed plasma streams

A. V. Medvedev, V. I. Tereshin, I. Garkusha, 2009 .

EXPERIMENTAL STUDY OF CURRENT-SHEET-LIKE STRUCTURE IN PINCHING PLASMA FLOW WITH ELECTRIC AND MAGNETIC PROBES

Y. Petrov, V. Makhlai, V. Chebotarev, 2022, Problems of Atomic Science and Technology.

Distributions of magnetic field and current in pinching plasma flows: effect of axial magnetic field

Y. Petrov, V. Makhlai, I. Garkusha, 2021, The European Physical Journal Plus.

An Impulsive High-Pressure Gas Valve for Plasma Devices

V. Chebotarev, N. V. Kulik, V. Staltsov, 2018, Instruments and experimental techniques (New York).

Compression zone of a magnetoplasma compressor as a source of extreme UV radiation

Y. Petrov, I. Garkusha, V. Chebotarev, 2012 .

Discharge characteristics and dynamics of compressive plasma streams generated by a compact magnetoplasma compressor

V. I. Tereshin, Y. Petrov, I. Garkusha, 2011 .

Properties of modified surface layers of industrial steel samples processed by pulsed plasma streams

V. I. Tereshin, G. Müller, G. Schumacher, 2000 .

Surface modification of constructional steels by irradiation with high intensity pulsed nitrogen plasma beams

V. I. Tereshin, B. Sartowska, W. Starosta, 2000 .

Experimental Studies of High-Energy Quasi-Steady Plasma Streams Generated by a Magnetoplasma Analogue of the Laval Nozzle in the Compression and Acceleration Regimes

I. Garkusha, V. Chebotarev, N. V. Kulik, 2019, Plasma Physics Reports.

Plasma Injectors for Quasi-Stationary High-Power Plasmodynamic Systems

V. Makhlai, V. Chebotarev, N. V. Kulik, 2019, Instruments and Experimental Techniques.

Damage of target edges in brush-like geometry in the course of ELM-like plasma pulses in QSPA Kh-50

S. Herashchenko, N. N. Aksenov, I. Garkusha, 2015 .

QSPA Kh-50 full-scale high-power asistationary plasma accelerator

V. I. Kovalenko, V. I. Tereshin, O. S. Pavlichenko, 1992 .

Investigation of pinching discharges in MPC device operating with nitrogen and xenon gases

V. I. Tereshin, S. A. Trubchaninov, A. Hassanein, 2006 .

Alloying and Modification of Structural Materials under Pulsed Plasma Treatment

V. I. Tereshin, V. Medvedev, I. Garkusha, 2022 .

Melt layer behavior of metal targets irradiatead by powerful plasma streams

V. I. Tereshin, I. Garkusha, V. Chebotarev, 2002 .

MEASUREMENT OF THE LOCAL ELECTRON TEMPERATURE IN SELF-COMPRESSED PLASMA STREAM

Y. Petrov, V. Makhlai, I. Garkusha, 2021, Problems of Atomic Science and Technology.

Multiplexing Creation of a Compression Zone in the Plasma Steam MPC under Different Initial Conditions

S. I. Ananin, Y. Petrov, I. Garkusha, 2017 .

PLASMAS AND GASES

S. I. Ananin, Y. Petrov, I. Garkusha, 2016 .

Formation of the compression zone in a plasma flow generated by a magnetoplasma compressor

D. V. Eliseev, Y. Petrov, I. Garkusha, 2013 .

Action of a high-power plasma flow on a transparent mechanical structure

V. I. Tereshin, O. S. Pavlichenko, I. Garkusha, 1997 .

The prospects of using carbon-graphite materials as construction elements of the microwave plasma diagnostic in a fusion reactor

V. I. Tereshin, A. I. Skibenko, R. Pavlichenko, 1994 .

Characterization of dense plasma streams generated by MPC and their interaction with material surfaces

Y. Petrov, I. Garkusha, V. Chebotarev, 2012 .

INVESTIGATION OF HELIUM PLASMA STREAM PARAMETERS IN EXPERIMENTS ON SURFACE MODIFICATION

V. I. Tereshin, S. A. Trubchaninov, I. Garkusha, 2005 .