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Magnetohydrodynamics 54, 1/2 (2018)

Special issue:

Selected papers of the 6th All-Russian conference with international participation

``Physicochemical and Applied Problems of Magnetic Disperse Nanosystems''

Stavropol, Russia, September 2017


The physics of magnetic dispersed nanosystems is a modern, dynamically developing field of fundamental and applied research. The interest to this scientific field is determined by the possibility to control the properties and behavior of liquid magnetically soft and composite materials, such as magnetic colloids, magnetorheological suspensions, ferrogels, magnetic elastomers, etc. by a remote magnetic field. Such materials and media have been found to be promising in technological and biomedicine applications.

The All-Russian conferences on magnetic dispersed nanosystems (magnetic fluids) have a long history. Since 1977, the conferences have been held in Ivanovo, Perm, and Stavropol. The international scientific conference on Physico-Chemical and Applied Problems of Magnetic Disperse Nanosystems organized by the North Caucasus Federal University is traditionally held once every two years since 2007 in Stavropol. The conferences sum up the results of the topical studies on magnetic nanosystems and materials, discuss the most important and promising trends in this field.

The All-Russian scientific conferences on magnetic nanosystems by the North Caucasus Federal University emphasize the fact that the University is a recognized scientific centre in the field of magnetic nanosystems in Russia and has a notable position in the world scientific community. The scientific school of the physics of magnetic dispersed nanosystems in Stavropol exists and has been actively developing since the mid-1970's. V.V. Chekanov established a laboratory of magnetic fluids at the Chair of General Physics, which based the school foundation in 1977. The investigations performed there are focused on the study of structurally-kinetic, magnetic and optical properties of magnetic nanosystems. The scientific school has two research laboratories equipped with modern devices and is aimed at comprehensive studies of liquid magnetizing media, magnetic dispersed nanosystems and new composite magnetic nanomaterials. The scientific studies of the school are often supported by grants from different funds and organizations, including the Russian Foundation for Basic Research, the Council for Grants of the President of the Russian Federation, the programs of the Ministry of Education and Science, Human Capital Foundation, the fund for assistance to innovations.

The 6th All-Russian Scientific Conference held on September 6--9, 2017 in Stavropol addressed the fundamental and applied problems of disperse nanosystems, including physical-chemical problems of synthesis, and discussed the results of the investigations of magnetic, electric, optical, thermo-physical properties, micro-structural characteristics, magnetohydrodynamic problems, heat/mass transfer, convection and waves, the application of magnetic disperse nanosystems in technical engineering and biomedicine. The Conference program included plenary sessions, section meetings, round tables and excursions. More than 30 reports were presented at the conference; more than 40 participants attended the conference. After thorough peer-reviewing, 30 reports (papers) have been selected to be published in a Special issue of the international scientific Journal Magnetohydrodynamics.

The Conference Organizing Committee is grateful to the colleagues, who participated in the preparation of this issue and who have greatly contributed to the process of selection and reviewing of the submitted papers.

Yuri Dikansky
Conference Organizing Committee Chairman

S. S. Belykh and C. V. Yerin. Magneto-optic effect in water-based magnetic emulsions
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.1 ]


N. V. Kandaurova, V. V. Chekanov and V. S. Chekanov. Excitation autowave spreading modes in the near-electrode layer of magnetic fluid
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.2 ]


D. V. Gladkikh, Yu. I. Dikansky and A. G. Ispiryan. Some features of the magnetization of thin layers of magnetic fluids with magnetized aggregates in magnetic and electric fields
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.3 ]


A. N. Golubiatnikov. Non-linear waves in a thin layer of magnetic fluid
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.4 ]


A. O. Ivanov. The influence of the concentration on the initial dynamic susceptibility of weakly interacting dipolar fluids: an analysis using theory and computer simulations
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.5 ]


A. S. Ivanov. Some aspects of the surface tension temperature dependence of drop-like aggregates in magnetic fluids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.6 ]


C. A. Khokhryakova (Bushueva), K. G. Kostarev, A. V. Lebedev and M. O. Denisova. The effect of an oscillating vertically oriented magnetic field on the ferrofluid layer located on a perfluorooctane substrate
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.7 ]


A. Kolesnikova and A. Zakinyan. Rotating magnetic field induced structure formation in a magnetic fluid emulsion
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.8 ]


V. M. Korovin and V. A. Kazhan. Influence of longitudinal magnetic field on the Kelvin--Helmholz instability for two layers of ferrofluid at relative horizontal motion
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.9 ]


V. M. Kozhevnikov, Yu. A. Larionov and I. Yu. Chuenkova. Features of electrical properties in a structured thin magnetic fluid layer
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.10 ]


M. T. Krauzina, A. A. Bozhko, P. V. Krauzin and S. A. Suslov. The influence of uniform external magnetic field on heat transfer in ferrofluids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.11 ]


Yu. I. Dikansky, A. G. Ispiryan, S. A. Kunikin and A. V. Rodionov. Temperature dependence of ferrofluid susceptibility. Influence of particle size distribution
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.12 ]


A. A. Kuznetsov, A. V. Lebedev and A. F. Pshenichnikov. Nonlinear response of a concentrated ferrofluid to a low-frequency magnetic field
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.13 ]


D. Kvasov and V. Naletova. The form of the magnetic fluid drop in a uniform harmonic electric field with the concentration of surface charge transportations
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.14 ]


Yu. A. Larionov, V. M. Kozhevnikov, I. Yu. Chuenkova and A. A. Antonova. Particle aggregation in magnetic fluid layer in electric field
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.15 ]


M. S. Demin and T. F. Morozova. Modelling of electrical capacitance dependences of magnetic nanofluid layer in an electric field
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.16 ]


D. Pelevina, O. Sharova, A. Vinogradova, V. Turkov and V. Naletova. Formation of bridges between non-magnetic surfaces via the magnetic fluid surface deformation in non-uniform magnetic fields
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.17 ]


E. S. Pyanzina, E. V. Novak, D. A. Rozhkov, A. V. Gudkova and P. A. Sánchez. Influence of the particle shape on the equilibrium morphologies of supracolloidal magnetic filaments
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.18 ]


A. Radionov. Magnetic fluid sealing complexes for bearing assemblies of mine main ventilation fans
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.19 ]


I. A. Shabanova, A. M. Storozhenko, A. O. Tantsyura and I. M. Aref'ev. Azimuthal dependence of the acoustomagnetic effect in magnetic fluids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.20 ]


A. Yanovskii, A. Simonovskii and I. Chuenkova. Measurement of the vapor bubble formation frequency in boiling magnetic fluid by a two-layer medium method
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.21 ]


A. P. Sizov, D. S. Repin, V. S. Elovsky, V. A. Komelkov and A. V. Toporov. Application of magnetic nanoscale dispersed systems in electromechanical devices operated at separations of gas and liquid fire extinguishing agents
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.22 ]


I. M. Subbotin. Magnetic permeability of inverse ferrofluid emulsion: an influence of interdroplet interaction
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.23 ]


V. M. Makarov, S. Z. Kalaeva, M. A. Kruchina, N. L. Markelova, I. N. Zakharova, A. A. Ezhov and A. M. Shipilin. Production of magnetite-containing composite based on iron hydroxide from underground waters to synthesize magnetic fluids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.24 ]


V. M. Makarov, S. Z. Kalaeva, N. L. Markelova, L. A. Tyukina and A. Yu. Dubov. Production of nanodisperse magnetite for polymer compositions to be used for various purposes
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.25 ]


S. D. Turkin and Yu. I. Dikansky. Nanoparticles concentration influence on magnetic gyrotropy in ferrocolloids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.26 ]


A. Tyatyushkin. Drop of viscous magnetic fluid in a non-stationary magnetic field
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.27 ]


C. V. Yerin, V. I. Lykhmanova and M. V. Yerina. Spectral dependences of the complex refractive index of concentrated magnetic fluids
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.28 ]


A. Zakinyan. Electrical conductivity of inverse magnetic fluid emulsion
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.29 ]


A. V. Zhukov. Stability of capillary--gravity waves in the presence of magnetic surfactant in an external magnetic field
[Abstract] [PDF] [ DOI: 10.22364/mhd.54.1-2.30 ]


Copyright: Institute of Physics, University of Latvia
Electronic edition ISSN 1574-0579
Printed edition ISSN 0024-998X