V. Smirnov

发表

Chemiluminescent emission of CH*, C*2, OH*, and CO*2 during the ignition of ethane behind reflected shock waves

E. Atkin, P. Vlasov, E. Atkin, 2016, Russian Journal of Physical Chemistry B.

Unified kinetic model of soot formation in the pyrolysis and oxidation of aliphatic and aromatic hydrocarbons in shock waves

G. Agafonov, P. Vlasov, I. Bilera, 2016, Kinetics and Catalysis.

Formation of soot particles in pyrolysis and oxidation of aliphatic and aromatic hydrocarbons: Experiments and detailed kinetic modeling

G. Agafonov, P. Vlasov, I. Bilera, 2016, Russian Journal of Physical Chemistry B.

Reactions of initiation of the autoignition of H2–O2 mixtures in shock waves

P. Vlasov, A. Tereza, V. Smirnov, 2016, Russian Journal of Physical Chemistry B.

Panoramic energy-mass ion spectrometer for the Phobos-Grunt mission

O. Vaisberg, P. Moiseev, L. Avanov, 2014 .

The Environment at Lake El’gygytgyn Area (Northeastern Russian Arctic) Prior to and After the Meteorite Impact at 3.58 Ma

O. Glushkova, A. Andreev, M. Melles, 2021, Frontiers in Earth Science.

Pliocene to Holocene geomorphic evolution and paleogeography of the El’gygytgyn Lake region, NE Russia

O. Glushkova, V. Smirnov, 2006 .

Soot formation during the pyrolysis and oxidation of acetylene and ethylene in shock waves

G. Agafonov, P. Vlasov, I. Bilera, 2015, Kinetics and Catalysis.

Soot formation in the pyrolysis of benzene, methylbenzene, and ethylbenzene in shock waves

G. Agafonov, P. Vlasov, V. Smirnov, 2011 .

Soot Formation During Pyrolysis of Methane and Rich Methane/Oxygen Mixtures Behind Reflected Shock Waves

J. Warnatz, G. Agafonov, A. Borisov, 2008 .

Reactions of molybdenum atoms with NO, O2, N2O, and CO2 molecules behind shock waves

V. Smirnov, U. S. Akhmadov, 2010 .

Reactions of Cr atoms with NO, N2O, CO2, NO2, and SO2 molecules

V. Smirnov, U. S. Akhmadov, 2010 .

An experimental and simulation study of the effect of acetone and propane additives on soot formation in acetylene pyrolysis behind reflected shock waves

G. Agafonov, P. Vlasov, A. Tereza, 2019, Journal of Physics: Conference Series.

Shock Tube and Modeling Study of Chemical Ionization in the Oxidation of Acetylene and Methane Mixtures

G. Agafonov, P. Vlasov, A. Tereza, 2016 .

Spatial and mass distribution of low-mass dust particles (m < 10 −10 g) in comet P/Halley’s coma

L. Gorn, O. Vaisberg, V. Smirnov, 1988 .

Shock-tube study of the formation of iron, carbon, and iron–carbon binary nanoparticles: experiment and detailed kinetic simulations

G. Agafonov, A. Streletskii, P. Vlasov, 2019 .

New Data on the Age and Composition of Cenozoic Andesibasalts and Andesites of the Bolshaya Garmanda River (North Okhotsk Region)

E. Bogomolov, V. Smirnov, P. Fedorov, 2018, Russian Journal of Pacific Geology.

Deformation-driven differentiation of granitic magma: the Stepninsk pluton of the Uralides, Russia

F. Bea, P. Montero, G. Fershtater, 2005 .

Effect of Iron Pentacarbonyl on Soot Formation Behind Shock Waves

G. Agafonov, P. Vlasov, V. Smirnov, 2012 .

Uralian magmatism: an overview

F. Bea, P. Montero, G. Fershtater, 1997 .

Spectroscopic features of intrinsic defects in silica glasses fused from different raw materials

O. Ovchinnikova, M. Danchevskaya, V. Smirnov, 1992 .

Dust coma structure of comet Halley from SP-1 detector measurements

L. Gorn, O. Vaisberg, S. Savin, 1986 .

INTENSITIES IN THE INFRA-RED ABSORPTION SPECTRA OF POLYATOMIC MOLECULES

L. Gribov, V. Smirnov, 1962 .

The kinetic characteristic features of the low temperature hydrogen oxidation during the induction period behind reflected shock waves

S. Medvedev, G. Agafonov, P. Vlasov, 2016 .

Self-ignition and pyrolysis of acetone behind reflected shock waves

S. Medvedev, A. Tereza, V. Smirnov, 2020, Acta Astronautica.

Chemical Ionization in Oxidation of n-Hexane and Acetone in Reflected Shock Waves

P. Vlasov, O. B. Ryabikov, V. Smirnov, 2019 .

Emission of OH* and CO2* during the high-temperature oxidation of acetone in reflected shock waves

P. Vlasov, A. Tereza, V. Smirnov, 2018 .

Thermochemical parameters and rate constants of the reactions Fe + O2 + M ↔ FeO2 + M and FeO + O2 ↔ FeO2 + O

V. Smirnov, 2012, Kinetics and Catalysis.

Determination of the rate constants for the reaction Fe + O2 = FeO + O in the forward and reverse directions

V. Smirnov, 2011 .

40Ar/39Ar age of rock deformations across the Bazhenov suture zone (eastern border of the Middle Urals)

A. Travin, K. Ivanov, V. Smirnov, 2019, LITHOSPHERE.

U–Pb dating and composition of inclusions in zircon from ophiolitic gabbro of the Klyuchevsk massif (Middle Urals): Results and geological interpretation

V. A. Koroteev, Yu. V. Erokhin, K. Ivanov, 2016, Doklady Earth Sciences.

Clusters and gigantic heterophase water clusters

V. Goncharuk, V. Smirnov, V. Malyarenko, 2007 .

Chemiluminescence of electronically excited species during the self-ignition of acetylene behind reflected shock waves

S. Medvedev, A. Tereza, V. Smirnov, 2020 .

Kinetics of energy liberation during thermal decomposition of nitrates in shock waves

S. A. Tsyganov, I. Zaslonko, A. Tereza, 1988 .

A Shock-Tube and Modeling Study of Soot Formation During Pyrolysis of Propane, Propane/Toluene and Rich Propane/Oxygen Mixtures

G. Agafonov, P. Vlasov, V. Smirnov, 2010 .

Kinetics of the thermal decomposition of dimethylcadmium

A. Moiseev, I. Zaslonko, V. Smirnov, 1990 .

Chemical Ionization of n-Hexane, Acetylene, and Methane behind Reflected Shock Waves

G. Agafonov, P. Vlasov, A. Tereza, 2018 .

A Shock Tube Study of the Thermal Decomposition of Si2H6 Based on Si and SiH2 Measurements

P. Roth, V. N. Smirnov, P. Roth, 1995 .

ARAS measurements on the thermal decomposition of silane

P. Roth, V. N. Smirnov, P. Roth, 1993 .

Experimental Studies and Simulation of Methane Pyrolysis and Oxidation in Reflected Shock Waves Accompanied by Soot Formation

P. Vlasov, V. Smirnov, A. R. Akhunyanov, 2022, Kinetics and Catalysis.

Electric probe measurements of chemical ionization behind reflected shock waves

P. Vlasov, O. B. Ryabikov, V. A. Polyanskii, 2020, Journal of Physics: Conference Series.

Luminescent Characteristics of the Shock-Wave Ignition of an Ethylene−Oxygen Mixture

P. Vlasov, A. Tereza, V. Smirnov, 2017 .

Shock tube and modeling study of soot formation during the pyrolysis and oxidation of a number of aliphatic and aromatic hydrocarbons

G. Agafonov, P. Vlasov, V. Smirnov, 2011 .

Soot Formation During Pyrolysis and Oxidation of Aliphatic and Aromatic Hydrocarbons in Shock Waves: Experiments and Detailed Kinetic Modeling

G. Agafonov, P. Vlasov, I. Bilera, 2017 .

Effect of pressure on soot formation in the pyrolysis of n-hexane and the oxidation of fuel-rich mixtures of n-heptane behind reflected shock waves

G. Agafonov, P. Vlasov, I. Bilera, 2016, Russian Journal of Physical Chemistry B.

Rate constant of the gas-phase reaction between Fe atoms and CO2

V. Smirnov, 2008 .

Shock Tube and Modeling Study of Soot Formation during Pyrolysis and Oxidation of Acetylene and Ethylene Mixtures

G. Agafonov, P. Vlasov, I. Bilera, 2013 .

A KINETIC MODEL OF HIGH-TEMPERATURE DECOMPOSITION OF METHANE AND ETHANE

I. Zaslonko, A. Tereza, V. Smirnov, 1994 .

Mechanism and kinetics of silane decomposition in shock waves

I. Zaslonko, V. Smirnov, V. Mikheev, 1987 .

Rate constant of thermal dissociation of gaseous C2F5I

G. Skorobogatov, I. Zaslonko, V. Smirnov, 1991 .

Effects of hydrocarbon impurities, vibrational relaxation, and boundary-layer-induced pressure rise on the ignition of H2–O2‒Ar mixtures behind reflected shock waves

P. Vlasov, V. Smirnov, 2021 .

An empirical model of the Venusian outer environment 1. The shape of the dayside solar wind‐atmosphere interface

D. Intriligator, O. Vaisberg, V. Smirnov, 1980 .

Pressure balance and pressure distribution along the dayside ionopause of Venus

D. Intriligator, O. Vaisberg, V. Smirnov, 1980, Nature.

Ion Flux Parameters in the Solar Wind—Venus Interaction Region According to Venera-9 and Venera-10 Data

O. L. Vaisberg, S. A. Romanov, Vl. N. Smirnov, 2013 .

Effect of iron pentacarbonyl additives on the nucleation of soot particles during the pyrolysis of ethylene in shock waves

A. Streletskii, P. Vlasov, A. Tereza, 2018 .

Soot Formation in Shock Tube Methane Pyrolysis and Oxidation of Rich Methane/Oxygen Mixtures

J. Warnatz, G. Agafonov, A. Borisov, 2007 .

Nonequilibrium reaction between N2O and CO in shock waves

I. Zaslonko, V. Smirnov, Y. Mukoseev, 1978 .

FORMATION OF HYDROGEN ATOMS IN SILANE PYROLYSIS BEHIND SHOCK WAVES. KINETICS AND THERMOCHEMISTRY OF SIH4, SIH3, AND SIH2 DECOMPOSITION

P. Roth, V. N. Smirnov, P. Roth, 1994 .

Germane decomposition: Kinetic and thermochemical data

V. Smirnov, 2007 .

Some geochronological observations on the Precambrians of Chotanagpur, Bihar, India

N. C. Ghose, V. Smirnov, B. Shmakin, 1973, Geological Magazine.

The IVTANTHERMO-Online database for thermodynamic properties of individual substances with web interface

G. V. Belov, Pavel R. Levashov, I. V. Morozov, 2018 .

Low-Temperature Ignition of Concentrated Syngas Mixtures Behind Reflected Shock Waves

G. A. Shubin, P. Vlasov, V. Arutyunov, 2022, Russian Journal of Physical Chemistry B.

Instabilities of ion flow observed downstream of the Earth's bow shock

Z. Němeček, J. Šafránková, V. Smirnov, 1986 .

Seismicity of Chukotka, northeastern Russia

K. Fujita, K. Mackey, V. Imaev, 2002 .

Results of 147Sm–143Nd (ID-TIMS) and U–Pb (SHRIMP-II) Dating of Rocks and Minerals of the Chromite-Bearing Kluchevskoy Ophiolite Massif (the Eastern Segment of the Urals) and Their Geological Interpretation

Yu. V. Erokhin, K. Ivanov, V. Smirnov, 2022, Minerals.

Structural Connections between the Urals and Western Siberia: A Common Stage of Formation at the Permian–Triassic Boundary

K. Ivanov, V. Smirnov, 2019, Doklady Earth Sciences.

An attempt to evaluate the structure of cometary dust particles

S. Anisimov, O. Vaisberg, V. Smirnov, 1986 .

Sr, Nd, and Hf Isotope Composition of Rocks of the Reft Gabbro–Diorite–Tonalite Complex (Eastern Slope of the Middle Urals): Petrological and Geological Implications

A. Gerdes, K. Ivanov, V. Smirnov, 2018, Geochemistry International.

The Sr, Nd, and Hf isotopic geochemistry of rocks of the gabbro–diorite–tonalite association from the Eastern Segment of the Middle Urals as an indicator of the age of the continental crust in this area

V. A. Koroteev, A. Gerdes, K. Ivanov, 2017, Doklady Earth Sciences.

Geochemistry of volcanic rocks in the Tagil zone of the Urals as an indicator of geodynamic environments of their formation

K. Ivanov, V. Smirnov, I. F. Fadeicheva, 2008 .

The results of U-Pb SHRIMP-II dating of zircon from granitoids of Talitsky molybdenum-bearing massif (eastern slope of the Middle Urals)

S. Shokalsky, V. Smirnov, Yu. L. Ronkin, 2017 .

Emission of CH* and C2* during the high-temperature oxidation of propane in reflected shock waves

P. Vlasov, A. Tereza, V. Smirnov, 2019, Journal of Physics: Conference Series.

LATE MESOZOIC BIMODAL ALKALINE VOLCANIC ASSOCIATION IN THE WESTERN TRANSBAIKAL REGION AND THE AGE OF ITS FORMATION : GEOLOGICAL AND GEOCHRONOLOGICAL ( RB-SR AND K-AR) DATA

V. G. Ivanov, A. Vorontsov, M. Kuzmin, 1999 .

Early Cenozoic volcanism of the Kolyuchin-Mechigmen graben, Chukotka Peninsula

V. Smirnov, P. Fedorov, 2014, Petrology.

On the finding of brachiopod in metamorphic garnet-bearing rocks on the Middle Urals

E. V. Burlakov, Yu. V. Erokhin, K. Ivanov, 2017 .

New data on the Early Cenozoic volcanism of the Kolyuchinskii-Mechigmen graben, Chukotka Peninsula

V. Smirnov, P. Fedorov, 2014, Doklady Earth Sciences.

Ruby Mineralization in Murzinka–Adui Metamorphic Complex, Central Urals

V. Smirnov, A. Kisin, M. Pritchin, 2020, Geology of Ore Deposits.

Thermal decomposition of nitromethane in shock waves : The effect of pressure and collision partners

I. Zaslonko, V. Smirnov, Y. Petrov, 1997 .

Experimental study and numerical simulation of chemiluminescence emission during the self-ignition of hydrocarbon fuels

S. Medvedev, A. Tereza, V. Smirnov, 2019, Acta Astronautica.

A kinetic model for nonisothermic homogeneous nucleation

V. Smirnov, 2000 .

Numerical simulation of the autoignition of hydrogen-air mixtures behind shock waves

P. Vlasov, A. Lyubimov, V. Ziborov, 2015 .

High-temperature decomposition of methyl, ethyl, and isopropyl nitrates in shock waves

I. Zaslonko, A. Tereza, V. Smirnov, 1993 .

Measurement of the mean energy of electrons in a beam of a low-energy line'ar accelerator

E. V. Armenskii, V. Smirnov, V. M. Rybin, 1965 .

Linac with integrated power source based on radio frequency energy compression

A. Smirnov, V. Smirnov, 1995 .

Physicochemical parameters of the melts participating in the formation of chromite ore hosted in the Klyuchevsky ultramafic massif, the Central Urals, Russia

K. Ivanov, V. Simonov, V. Smirnov, 2009 .

Ion distribution function dynamics near the strong shock front (Project Intershock)

Z. Němeček, O. Vaisberg, J. Šafránková, 1986 .

Observations of the fine structure of ion distribution function at the bow shock

J. Waite, J. Burch, L. Avanov, 1997 .

Kinetic and thermochemical characteristics of the dissociation of Mo(CO)6 and W(CO)6

P. Vlasov, V. Smirnov, 2019, International Journal of Chemical Kinetics.

The ion energy and mass analyzer on board the ‘Intercosmos-Bulgaria-1300’ satellite

O. Vaisberg, P. Nenovski, G. Zastenker, 1982 .

Effect of СО2 Additives on the Noncatalytic Conversion of Natural Gas into Syngas and Hydrogen

P. Vlasov, V. Arutyunov, V. Smirnov, 2023, Kinetics and Catalysis.

Rate constants of the reaction Fe + O2 + M ↔ FeO2 + M in the low- and high-pressure limits

V. Smirnov, 2013, Russian Journal of Physical Chemistry B.

Mechanism and kinetics of interaction of Fe, Cr, Mo, and Mn atoms with molecular oxygen

I. Zaslonko, V. Smirnov, U. S. Akhmadov, 1988 .

An empirical model of the Venusian outer environment 2. The shape and location of the bow shock

D. Intriligator, O. Vaisberg, V. Smirnov, 1980 .

Equations of generalized thermoelasticity of a Cosserat medium in stresses

V. Smirnov, 1981 .

Variational theorem of generalized Cosserat-medium thermoelasticity

V. Smirnov, 1981, Journal of engineering physics.

Equations of generalized thermoelasticity of cosserat medium

V. Smirnov, 1980 .

Calculation of strong‐collision dissociation rate constants from NASA thermodynamic polynomials

V. Smirnov, 2020 .

On the nature of the solar-wind-Mars interaction

O. Vaisberg, S. Romanov, V. Smirnov, 1976 .

The U-Pb SIMS zircon age and geodynamic conditions of formation of granitoides of the Verkhisetsk batholith, the eastern slope of the Middle Urals

K. Ivanov, V. Smirnov, A. Larionov, 2014, Stratigraphy and Geological Correlation.

Thermodynamic Approach to the Calculation of the Rate Constants of Monomolecular Reactions in the Strong-Collision Limit

V. Smirnov, 2005 .

Solar wind protons, alpha particles and electrons in the shock wave and the potential barrier (The intershock project)

Z. Němeček, O. Vaisberg, N. Borodkova, 1989 .