N. Azarenkov

发表

УДК 533 . 9 DISPERSION OF THE SURFACE MAGNETOPLASMONS

I. Denysenko, A. Smolyakov, S. Ivko, 2010 .

Effect of plasma environment on synthesis of vertically aligned carbon nanofibers in plasma-enhanced chemical vapor deposition

K. Ostrikov, M. Yu, I. Denysenko, 2008, ICOPS 2008.

Dust charge and ion drag forces in a high-voltage, capacitive radio frequency sheath

I. Denysenko, K. Ostrikov, N. Azarenkov, 2009 .

Resonant transparency of a two-layer plasma structure in a magnetic field.

I. Denysenko, A. Smolyakov, S. Ivko, 2011, Physical review. E, Statistical, nonlinear, and soft matter physics.

Ion flux uniformity in inductively coupled plasma sources

M. Yu, I. Denysenko, N. Azarenkov, 2002 .

Formation of D inventories and structural modifications by deuterium bombardment of tungsten thin films

C. Linsmeier, K. Krieger, N. Azarenkov, 2005 .

Formation of vertically aligned carbon nanostructures in plasmas: numerical modelling of growth and energy exchange

I. Denysenko, N. Azarenkov, 2011 .

DEPOSITION OF COATINGS OF TUNGSTEN AND TWO-LAYER COPPER-TUNGSTEN COMPOSITION

V. Bobkov, S. Alimov, N. Azarenkov, 2013 .

Energetic Characteristics of the Surface Electromagnetic Wave at Plasma-Plasma Interface in Magnetic Field

I. Denysenko, S. Ivko, N. Azarenkov, 2014 .

Modeling of argon–acetylene dusty plasma

I. Denysenko, E. von Wahl, E. Kovačević, 2018, Plasma Physics and Controlled Fusion.

Effects of External Parameters on Formation of Nanoparticles in Argon-Acetylene Plasma

I. Denysenko, S. Ivko, N. Azarenkov, 2018, 2018 IEEE 8th International Conference Nanomaterials: Application & Properties (NAP).

FORMATION OF FOREST OF SINGLE-WALLED CARBON NANOTUBES IN PLASMA-ENHANCED CHEMICAL VAPOR DEPOSITION

I. Denysenko, N. Azarenkov, V. Karazin, 2012 .

Behavior of the electron temperature in nonuniform complex plasmas.

M. Yu, I. Denysenko, N. Azarenkov, 2006, Physical review. E, Statistical, nonlinear, and soft matter physics.

The increasing of H−current from Penning ion source with electrically biased metal hydride cathode

N. Azarenkov, I. Sereda, Ya. O. Hrechko, 2019, Vacuum.

Electron energy distribution function, effective electron temperature, and dust charge in the temporal afterglow of a plasma

I. Denysenko, H. Kersten, N. Azarenkov, 2016 .

Modeling results on the dust charge distribution in a plasma afterglow

I. Denysenko, N. Azarenkov, M. Mikikian, 2022, Physics of Plasmas.

Plasma properties as function of time in Ar/C2H2 dust-forming plasma

I. Denysenko, J. Berndt, E. von Wahl, 2020, Journal of Physics D: Applied Physics.

Electron energy distribution in a dusty plasma: analytical approach.

I. Denysenko, H. Kersten, N. Azarenkov, 2015, Physical review. E, Statistical, nonlinear, and soft matter physics.

A global model for the afterglow of pure argon and of argon with negatively charged dust particles

I. Stefanović, I. Denysenko, N. Sadeghi, 2011 .

A kinetic model for an argon plasma containing dust grains

L. Stenflo, M. Yu, I. Denysenko, 2004 .

Inductively coupled Ar/CH₄/H₂plasmas for low-temperature deposition of ordered carbon nanostructures

N. A. Azarenkov, P. P. Rutkevych, S. Xu, 2004 .

Effect of negative-ion flux on ion distribution around a spherical probe in electronegative plasmas

M. Yu, I. Denysenko, N. Azarenkov, 2006 .

DISCHARGING OF DUST PARTICLES OF DIFFERENT SIZES IN AN ARGON AFTERGLOW PLASMA

I. Denysenko, N. Azarenkov, M. Mikikian, 2022, Problems of Atomic Science and Technology.

Dust dynamics during the plasma afterglow

I. Denysenko, N. Azarenkov, M. Mikikian, 2021, Journal of Physics D: Applied Physics.

Effect of secondary emission on the argon plasma afterglow with large dust density

I. Stefanović, I. Denysenko, N. Azarenkov, 2015 .

Discharging of dust particles in the afterglow of plasma with large dust density.

I. Stefanović, I. Denysenko, J. Winter, 2013, Physical review. E, Statistical, nonlinear, and soft matter physics.

EFFECTS OF ARGON ATOMS IN EXCITED STATES ON PROPERTIES OF ARGON-ACETYLENE DUSTY PLASMA

I. Denysenko, S. Ivko, N. Azarenkov, 2020 .

Ion drag on dust grains in electronegative plasmas

L. Stenflo, M. Yu, I. Denysenko, 2005 .

Long, Vertically Aligned Single‐Walled Carbon Nanotubes from Plasmas: Morpho‐Kinetic and Alignment Controls

K. Ostrikov, I. Denysenko, I. Levchenko, 2014 .

Tungsten sputtering and accumulation of implanted carbon and deuterium by simultaneous bombardment with D and C ions

C. Linsmeier, K. Krieger, N. Azarenkov, 2007 .

BOMBARDMENT OF THE SURFACE BY A LOW-ENERGY ION FLOW ACCELERATED IN THE NEAR-SURFACE LAYER OF THE SPACE CHARGE

N. Azarenkov, Ie. V. Babenko, Ya. Hrechkо, 2023, Problems of Atomic Science and Technology.

Spectroscopic diagnostic complex based on the magnetron sputtering device with a digital method of the data mining

N. Azarenkov, D. Shevchenko, A. Skrypnyk, 2020 .

Carbon nanofiber growth in plasma-enhanced chemical vapor deposition

M. Mozetič, U. Cvelbar, K. Ostrikov, 2008 .

Effects of ions and atomic hydrogen in plasma-assisted growth of single-walled carbon nanotubes

K. Ostrikov, M. Yu, I. Denysenko, 2007 .

Ion-photon emission under ion bombardment of garnet structures of different composition

I. A. Afanas'eva, D. Ryzhov, N. Azarenkov, 2014 .

Surface waves at the interface of a dusty plasma and a metallic wall

N. A. Azarenkov, M. Yu, M. Y. Yu, 1998 .

Nonlinear effects of ionization on surface waves on a plasma-metal interface

N. A. Azarenkov, M. Yu, M. Y. Yu, 1998 .