Andrey Mikhaylovich Lipaev

Dr. Andrey Mikhaylovich Lipaev

orcid

Research Focus & Metrics

Academic Career Length

31Years (1996-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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22 April 2003 in New Journal of Physics
Verified
Journal Article
Open access
ANAnatoli P Nefedov
Anatoli P Nefedov
GMGregor E Morfill
Gregor E Morfill
VFVladimir E Fortov
Vladimir E Fortov
HTHubertus M Thomas
Hubertus M Thomas
HRHermann Rothermel
Hermann Rothermel
YSYuri P Semenov
Yuri P Semenov

1 March 2008 in New Journal of Physics
Verified
Journal Article
Open access
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HTH M Thomas
H M Thomas
GMG E Morfill
G E Morfill
VFV E Fortov
V E Fortov
AIA V Ivlev
A V Ivlev
VMV I Molotkov
V I Molotkov
SKS K Krikalev
S K Krikalev

1 December 1998 in Journal of Experimental and Theoretical Physics
Verified
Journal Article
Closed access
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VFV. E. Fortov
V. E. Fortov
ANA. P. Nefedov
A. P. Nefedov
OVO. S. Vaulina
O. S. Vaulina
ALAndrey Mikhaylovich Lipaev
Andrey Mikhaylovich Lipaev
VMV. I. Molotkov
V. I. Molotkov
PVP. V. Vinogradov
P. V. Vinogradov
The dynamics of the formation of ordered structures of macroparticles charged by photoemission under the action of solar radiation under microgravitational conditions without the use of electrostatic...

25 February 2009 in Physical Review Letters
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Journal Article
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KSK. R. Sütterlin
K. R. Sütterlin
AWA. Wysocki
A. Wysocki
AIA. V. Ivlev
A. V. Ivlev
CRC. Räth
C. Räth
HTH. M. Thomas
H. M. Thomas
HLH. Löwen
H. Löwen
The dynamical onset of lane formation is studied in experiments with binary complex plasmas under microgravity conditions. Small microparticles are driven and penetrate into a cloud of big particles, revealing a strong tendency towards lane formation. The observed time-resolved lane-formation process is in good agreement with computer simulations of a binary Yukawa model with Langevin dynamics. The laning is quantified in terms of the anisotropic scaling index, leading to a universal order parameter for driven systems.

1 September 2016 in Review of Scientific Instruments
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Journal Article
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MPM. Y. Pustylnik
M. Y. Pustylnik
MFM. A. Fink
M. A. Fink
VNVladimir Nosenko
Vladimir Nosenko
TAT. Antonova
T. Antonova
THT. Hagl
T. Hagl
SCS. Christoforetti
S. Christoforetti
New complex-plasma facility, Plasmakristall-4 (PK-4), has been recently commissioned on board the International Space Station. In complex plasmas, the subsystem of μm-sized microparticles immersed in low-pressure weakly ionized gas-discharge plasmas becomes strongly coupled due to the high (103–104 e) electric charge on the microparticle surface. The microparticle subsystem of complex plasmas is available for the observation at the kinetic level, which makes complex plasmas appropriate for particle-resolved modeling of classical condensed matter phenomena. The main purpose of PK-4 is the investigation of flowing complex plasmas. To generate plasma, PK-4 makes use of a classical dc discharge in a glass tube, whose polarity can be switched with the frequency of the order of 100 Hz. This frequency is high enough not to be felt by the relatively heavy microparticles. The duty cycle of the polarity switching can be also varied allowing to vary the drift velocity of the microparticles and (when necessary) to trap them. The facility is equipped with two videocameras and illumination laser for the microparticle imaging, kaleidoscopic plasma glow observation system and minispectrometer for plasma diagnostics and various microparticle manipulation devices (e.g., powerful manipulation laser). Scientific experiments are programmed in the form of scripts written with the help of specially developed C scripting language libraries. PK-4 is mainly operated from the ground (control center CADMOS in Toulouse, France) with the support of the space station crew. Data recorded during the experiments are later on delivered to the ground on the removable hard disk drives and distributed to participating scientists for the detailed analysis.

6 March 2008 in Physical Review Letters
Verified
Journal Article
Closed access
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AIA. V. Ivlev
A. V. Ivlev
GMG. E. Morfill
G. E. Morfill
HTH. M. Thomas
H. M. Thomas
CRC. Räth
C. Räth
GJG. Joyce
G. Joyce
PVP. Vinogradov
P. Vinogradov
We report the experimental discovery of “electrorheological (ER) complex plasmas,” where the control of the interparticle interaction by an externally applied electric field is due to distortion of the Debye spheres that surround microparticles (dust) in a plasma. We show that interactions in ER plasmas under weak ac fields are mathematically equivalent to those in conventional ER fluids. Microgravity experiments, as well as molecular dynamics simulations, show a phase transition from an isotropic to an anisotropic (string) plasma state as the electric field is increased.