D. Solyakov

发表

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 .

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.

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

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

INFLUENCE OF LONGITUDINAL MAGNETIC FIELD IN THE MPC CHANNEL ON THE DENSITY OF GENERATED PLASMA STREAM

V. Makhlai, A. Marchenko, D. Solyakov, 2021 .

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 .

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 .

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.

EUV radiation from pinching discharges of magnetoplasma compressor type and its dependence on the dynamics of compression zone formation

A. Hassanein, Y. Petrov, I. Garkusha, 2014 .

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.

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 .

Melt layer behavior of metal targets irradiatead by powerful plasma streams

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

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

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

Hot plasma target interaction and quantification of erosion of the ITER slot divertor during disruptions and ELMs

V. I. Tereshin, F. Kappler, V. Tolkach, 1999 .